https://video.igem.org/about/instance/homehttps://video.igem.org/videos/browse?scope=localhttps://video.igem.org/homehttps://video.igem.org/w/8TrDiCr84h8oXsmCCgX6Huhttps://video.igem.org/lazy-static/thumbnails/83833a86-9a48-4a33-97e3-5513743202df.jpgPresident's Message | 2019 Giant JamboreePresident's Message | 2019 Giant Jamboreehttps://static.igem.org/peertube/streaming-playlists/hls/3fdeb4c0-111f-48c6-9340-92053c0f4b22/95aed7f1-e401-456e-bb6c-90538609c0c6-master.m3u8https://video.igem.org/videos/embed/8TrDiCr84h8oXsmCCgX6Hu916062020-09-16T10:38:05.082ZYES2019 Giant JamboreeNOhttps://video.igem.org/w/rwEsSoNJxVwvThBnwM9Ejihttps://video.igem.org/lazy-static/thumbnails/1312461e-f45d-4a53-9dc7-c05431871038.jpgOpening Ceremony | 2019 Giant JamboreeOpening Ceremony | 2019 Giant Jamboreehttps://static.igem.org/peertube/streaming-playlists/hls/cebc7bc1-a3a7-4ebf-814e-e19cb8f3c20d/ca9dfede-b94a-4bb4-8044-6276fa7858d1-master.m3u8https://video.igem.org/videos/embed/rwEsSoNJxVwvThBnwM9Eji22080122020-09-16T10:40:17.328ZYES2019 Giant JamboreeNOhttps://video.igem.org/w/9RqcYR5zmEYhuWipK7xnRwhttps://video.igem.org/lazy-static/thumbnails/aa46ce01-3a6c-4478-8bbc-4677162be07a.jpg2019 Giant Jamboree Wrap Up2019 Giant Jamboree Wrap Uphttps://static.igem.org/peertube/streaming-playlists/hls/47af78c9-c1f8-4529-a519-3982fd08aa84/8ab2cc63-550b-4002-ac52-0b3b87ef1b4c-master.m3u8https://video.igem.org/videos/embed/9RqcYR5zmEYhuWipK7xnRw63032020-09-16T10:41:08.173ZYES2019 Giant JamboreeNOhttps://video.igem.org/w/iVANQnyXGF83BG3kDbWcDZhttps://video.igem.org/lazy-static/thumbnails/5a35e03f-3ab5-402a-b8af-3f4ea37e350f.jpgSPIDERMAN (GreatBay SZ) #HighSchoolGrandPrizeWinnerThis team of students from the Shenzhen area took home the High School Grand Prize with their project SPIDERMAN - SPIDroin EngineeRing with chroMoprotein And Natural dye. Inspired by superhero battle suits, they biosynthesized colored spider silk, a material with applications in medicine, textiles, and aerospace fields.https://static.igem.org/peertube/streaming-playlists/hls/91273a57-dd26-4637-a0b9-43df671d7217/674db7e5-7b66-4e66-aaaa-fdab3b4d3244-master.m3u8https://video.igem.org/videos/embed/iVANQnyXGF83BG3kDbWcDZ148201412020-09-16T10:43:33.570ZYES2019 Giant JamboreeNOhttps://video.igem.org/w/r45C5xFYAzAXUL67c7LJLrhttps://video.igem.org/lazy-static/thumbnails/620ceffe-d2df-4fe9-bcba-d579cd0fda22.jpgViTEST (EPFL) #OvergraduateGrandPrizeWinnerFor European winegrowers facing deadly plant diseases like Flavescence Dorée and Bois Noir, four weeks can be too long to wait for a diagnosis. This team from Ecole Polytechnique Federale de Lausanne built a field-deployable test that gives farmers crucial results in as little as two hours, helping them save their crops while reducing pesticide use.https://static.igem.org/peertube/streaming-playlists/hls/cae28bd6-a1f3-4e3f-9331-09d33c0b9719/22b326e3-65ca-431f-8819-ab2e9607ba30-master.m3u8https://video.igem.org/videos/embed/r45C5xFYAzAXUL67c7LJLr133401842020-09-16T10:44:47.667ZYES2019 Giant JamboreeNOhttps://video.igem.org/w/jA1dcUVd4UbbVoK7WvgsbWhttps://video.igem.org/lazy-static/thumbnails/9804d7ce-ff24-4632-b9a9-a884c7bf41cf.jpgOh My Gut (NCKU Tainan) #UndergraduateGrandPrizeWinner1 in 10 people worldwide suffer from Chronic Kidney Disease (CKD), a condition with no cure. This team from the National Cheng Kung University won the Undergraduate Grand Prize with their biological systems for measuring and reducing p-Cresol levels, a uremic toxin that worsens the health outcomes of CKD patients.https://static.igem.org/peertube/streaming-playlists/hls/9683e9eb-4c95-4510-a949-a62c5595240a/9430fa09-e406-4a64-b169-3609e72e3e65-master.m3u8https://video.igem.org/videos/embed/jA1dcUVd4UbbVoK7WvgsbW120303382020-09-16T10:45:51.536ZYES2019 Giant JamboreeNOhttps://video.igem.org/w/c8k6dKqsvGs1ACLe6ibXr9https://video.igem.org/lazy-static/thumbnails/a684c686-fb18-4121-923f-cd0de35b3314.jpgCalgary: CANOLA (2019) - Finalist PresentationCanada, the largest global producer of canola oil is faced by the "green seed problem", an issue that costs the industry $150m every year. This team from the University of Calgary engineered a biological solution to improve the production pipeline at every step, yielding more high-quality product at a lower environmental cost. [[Wiki](http://2019.igem.org/Team:Calgary)] [[Slides](https://2019.igem.org/wiki/images/6/67/Calgary_Presentation.pdf)] [[Poster](https://2019.igem.org/wiki/images/3/3e/Calgary_Poster.pdf)] [[Parts](http://parts.igem.org/cgi/partsdb/pgroup.cgi?pgroup=iGEM2019&amp;group=Calgary)]https://static.igem.org/peertube/streaming-playlists/hls/5a1a7f0c-1855-45f7-a1a1-ea37e48d6f6e/9c2007ba-d641-4cdc-ad59-263d745b74b9-master.m3u8https://video.igem.org/videos/embed/c8k6dKqsvGs1ACLe6ibXr9125101272020-09-16T10:46:53.482Z#UndergraduateFirstRunnerUpYES2019 Giant JamboreeNOhttps://video.igem.org/w/cwedUPLHrYy4VuUMHkLcthhttps://video.igem.org/lazy-static/thumbnails/1d8c32a6-6326-4900-9e90-a90430b0d8e3.jpgTU_Kaiserslautern: Chlamy Yummy (2019) - Finalist PresentationEnergy intensive, releasing CO2, or requiring nasty chemicals: current plastic recycling is not ideal. This team from Technische Universität Kaiserslautern created a biological recycling method for polyethylene terephthalate (PET), a major plastic component, integrated within existing sanitation systems to eliminate plastic pollution. [[Wiki](http://2019.igem.org/Team:TU_Kaiserslautern)] [[Slides](https://2019.igem.org/wiki/images/a/ab/TU_Kaiserslautern_Presentation.pdf)] [[Poster](https://2019.igem.org/wiki/images/9/9b/Poster_iGEM_TU_Kaiserslautern.pdf)] [[Parts](http://parts.igem.org/cgi/partsdb/pgroup.cgi?pgroup=iGEM2019&group=TU_Kaiserslautern)]https://static.igem.org/peertube/streaming-playlists/hls/5d4cfcb1-05c2-4903-abfa-3642bb0389aa/d4703854-a17c-4c19-ba02-88a4cda7a583-master.m3u8https://video.igem.org/videos/embed/cwedUPLHrYy4VuUMHkLcth12530992020-09-16T10:48:01.002Z#UndergraduateSecondRunnerUpYES2019 Giant JamboreeNOhttps://video.igem.org/w/kENC1LoG4kX8s1JrDRjje5https://video.igem.org/lazy-static/thumbnails/ea26b65d-5c6f-4445-94be-18734bc4ec87.jpgWageningen_UR: Xylencer (2019) - Finalist PresentationXylella fastidiosa is a devastating plant pathogen that has destroyed agricultural industries around the world. Now, it threatens similar economic damage across Europe. This team from Wageningen University & Research developed a comprehensive system to both detect and cure plants of Xylella infections. [[Wiki](https://2019.igem.org/Team:Wageningen_UR)] [[Slides](https://2019.igem.org/wiki/images/5/59/Wageningen_UR_Presentation.pdf)] [[Poster](https://2019.igem.org/wiki/images/5/56/Wageningen_UR_Poster.pdf)] [[Parts](http://parts.igem.org/cgi/partsdb/pgroup.cgi?pgroup=iGEM2019&group=Wageningen_UR)]https://static.igem.org/peertube/streaming-playlists/hls/9f48a103-93bd-4fe3-bac0-7d7011aba3be/7fe7ea25-dbb1-421f-b45a-a6f55ef94ea4-master.m3u8https://video.igem.org/videos/embed/kENC1LoG4kX8s1JrDRjje5126001002020-09-16T10:49:15.364ZYES2019 Giant JamboreeNOhttps://video.igem.org/w/tB6C3gZ3ZHRytofxA7BzmGhttps://video.igem.org/lazy-static/thumbnails/14478a92-f937-49cb-bfc8-dac2f4ac70f9.jpgWelcome to iGEM 2020 - An Exceptional Year & Navigating the Competition - Opening Weekend FestivalOfficial Welcome to a new style of an iGEM season and the first ever Opening Weekend Festival. Plus, the Director of the Competition will walk teams through the major changes for the 2020 Competition and highlight material on the Competition website. Presented by: Meagan Lizarazo (iGEM Executive Vice President), Nemanja Stijepovic (iGEM Director of Video & Technology), and Traci Haddock Angelli (iGEM Director of the Competition) iGEM Headquarters See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/df8d3d74-8ca9-4dc7-8650-6c7412a1182c/7d34e603-7073-48a2-bb55-5105618a5f85-master.m3u8https://video.igem.org/videos/embed/tB6C3gZ3ZHRytofxA7BzmG1234082020-09-16T11:22:13.681ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/mvzwTiX4EUSk8kUA8FXBbwhttps://video.igem.org/lazy-static/thumbnails/c8f05081-3594-4f9f-a924-c3c345f169d6.jpgCOVID-19 Projects in iGEM 2020 - Opening Weekend FestivalCOVID-19 is a local problem everywhere in the world. Synthetic biology may play an important role in developing tools for detection, response and recovery. iGEM teams may want to play their part! Find out how iGEM will help keep you, your colleagues, and communities safe while enabling you to work on a COVID-19 related project. We will be exploring our new COVID-19 rules, how Safety and Security will work under lockdown, and providing an early opportunity for teams to think about risks from their projects and how to manage them. Presented by: Piers Milett iGEM Vice President of Safety & Security https://2020.igem.org/Safety See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/a61801f6-3a56-4f8a-9b96-785805169d36/f0ccd8a5-1235-4e1d-a384-37064ed61ce0-master.m3u8https://video.igem.org/videos/embed/mvzwTiX4EUSk8kUA8FXBbw12510102020-09-16T11:26:18.179ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/axfM1HamiXAM1LmPUCfGWjhttps://video.igem.org/lazy-static/thumbnails/f38ec119-3b73-4f98-aed4-3f8e6c1ecf12.jpgJudging in iGEM 2020 - Opening Weekend FestivalThe Executive Judging Committee (EJC) has made some exciting changes to the medal criteria so that all iGEM teams can participate and achieve medals with or without lab access this year. Join a panel of our EJC members as they talk about these changes, and take questions and feedback from teams. https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/4d3f692f-fc3c-499a-9754-289eb1d8ba9e/4c6a6459-6a98-4144-b3d0-1eaf3a63aeb5-master.m3u8https://video.igem.org/videos/embed/axfM1HamiXAM1LmPUCfGWj2365072020-09-16T11:34:23.636ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/nuoRjgccG6Q8iN3YXSnggMhttps://video.igem.org/lazy-static/thumbnails/41a55fba-a2ef-4332-9ae4-d726e55fa02f.jpgDoing Human Practices During a Global Pandemic - iGEM 2020 Opening Weekend FestivalUsing synthetic biology to address real-world problems requires thoughtful engagement with the world. We expect that physical distancing and public safety measures will prevent many 2020 iGEM teams from spending much time in the lab this season, but you can thoughtfully engage with the world even if you can’t travel or meet people face-to-face. In this presentation, members of the Human Practices Committee will share some of our ideas and reflections about how to do Human Practices in this very strange time. https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/ae06d1c3-9395-47c3-b3d8-ba47fb1ce777/b02fa759-7568-464f-b8ff-17b6b8ee4ac3-master.m3u8https://video.igem.org/videos/embed/nuoRjgccG6Q8iN3YXSnggM2462092020-09-16T11:43:06.709ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/oxcX5pVJiohZ4qiEq4UBWnhttps://video.igem.org/lazy-static/thumbnails/74d45240-4b78-434e-be3b-eb9324e917c4.jpgPlanning and Designing an iGEM Project 1 - iGEM 2020 Opening Weekend FestivalYour team is registered for the iGEM Jamboree and you’ve decided on a project. Have you thought carefully about the design of the project? What does the two-phase project option offer to you? Have you considered how to use modeling and measurement? And how are you planning to assemble your genetic circuits? The Measurement Committee has members all around the world that are ready to help your team. Tune in to this presentation for some useful information on planning and designing your project, as well as for us to learn how we can help you. Presented by: Jacob Beal, Ed Eisenstein, Ian Schlander, Tania Pozzo, and Sonja Billberck Measurement Committee https://2020.igem.org/Measurement See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/b68478b9-c70d-4cb3-a29c-0bf1fb78408d/f9d3f57a-6ffa-4528-afa9-6b79a3f2081c-master.m3u8https://video.igem.org/videos/embed/oxcX5pVJiohZ4qiEq4UBWn29810102020-09-16T11:52:26.751ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/n3jYpXfPHQhYQiVJX5J7wvhttps://video.igem.org/lazy-static/thumbnails/31657c81-5e6a-4ac3-bf59-a369d3a5ca03.jpgKeynote: Wiring the Past & Future: A Transition for Engineering BiologyKeynote Speakers: Pamela Silver, Ph.D., Professor of Biochemistry and Systems Biology, Harvard Medical School; Drew Endy, Ph.D., Associate Chair of Bioengineering, Stanford University, iGEM Co-Founder; Tom Knight, Ph. D., Co-Founder, Gingko Bioworks, iGEM Co-Founder; Moderated by: Megan J Palmer, Ph.D. (Stanford University, Director of Human Practices at iGEM) See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/aa631779-da95-4140-9ab8-24c1be477df1/a424b16b-3a0b-4f79-b044-e29f51bed121-master.m3u8https://video.igem.org/videos/embed/n3jYpXfPHQhYQiVJX5J7wv4602092020-09-16T12:05:57.750ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/3p5ovzaQvjirieiLQoTowKhttps://video.igem.org/lazy-static/thumbnails/b547b88e-c2e8-4add-a7bf-df9eb78e3324.jpgGMOs in Agriculture The Nobel Laureates’ Campaign - iGEM 2020 Opening Weekend FestivalThe use of GMOs in agriculture has been a hotly debated topic in recent years. In this presentation, Nobel Laureate Dr. Richard J. Roberts will discuss the importance of GMO use in agriculture. He will be joined by the iGEM VP of Safety,Piers Millett, to discuss the importance of biosafety in developing any GMOs. Presented by: Sir Richard J. Roberts, Ansley Gnanapragasam, and Piers Millett (iGEM VP of Safety & Security) Hosted by the After iGEM Communications Committee https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/136b169a-6425-4e10-9ba3-b25a4f7a83e7/ed33cf28-b851-4d69-98bd-26d52c8fae8a-master.m3u8https://video.igem.org/videos/embed/3p5ovzaQvjirieiLQoTowK43370112020-09-16T12:21:17.549ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/f2fiVtZVpi4FSrk3MmX85Hhttps://video.igem.org/lazy-static/thumbnails/1496c84e-693a-42a9-9672-8d50219dd6b3.jpgDesigning Scientifically Valid Surveys - iGEM 2020 Opening Weekend FestivalWhat makes a survey valid and informative? While surveys can provide you with valuable information, it’s often challenging to conduct a good survey. Surveys are a form of experiment, and like any experiment, they can be designed and implemented poorly. A poorly designed survey will give you ambiguous results, or worse, will bias your responses. In this workshop, members of the Human Practices committee will share some starting points for designing and conducting useful surveys. Presented by Mattew Sample and JC Gray (iGEM Human Practices Committee)https://static.igem.org/peertube/streaming-playlists/hls/718c80d4-b4fa-4d1e-a646-ea9ce6683305/eb78c609-d0ff-441d-9c5e-6e7f53a43277-master.m3u8https://video.igem.org/videos/embed/f2fiVtZVpi4FSrk3MmX85H2652042020-09-16T12:29:12.950ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/tA4d7AnKEz1Afud4cVt11Khttps://video.igem.org/lazy-static/thumbnails/bb0a258c-1664-4db6-87e1-9e23108bf480.jpgHow to Find Insights from Social Science Research Related to Your Project -iGEM 2020 Opening WeekendSimilar to conducting natural science research, good Human Practices also hinges on the ability to ask good questions and knowing how to find answers to these questions. This workshop helps to open up your outlook on the range of possible resources and tool you can draw on to help you ask pertinent questions, building (not merely collecting) coherent answers, and better integrate thesis insights into your project. Presented by Dr. Joy Zhang (iGEM Human Practices Committee) https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/df680270-67dc-4d05-978e-f49276601553/414f6809-4374-4e20-a98f-313604f190e8-master.m3u8https://video.igem.org/videos/embed/tA4d7AnKEz1Afud4cVt11K2385012020-09-16T12:32:58.672ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/tyDYMqUzWJchzFLLhzfugjhttps://video.igem.org/lazy-static/thumbnails/dbbb792d-6dd4-429c-ab0e-34598255469c.jpgiGEM Insights: Understanding iGEM Through Data - iGEM 2020 Opening Weekend FestivaliGEM Insights is an initiative sparked by a growing community of iGEMers and researchers around the world who want to grow a community through data and learning. Through iGEM Insights we aim to learn from iGEM (as a unique testbed of science and engineering in open, international contexts) to improve the competition and the practice of synthetic biology -- and science and engineering more broadly -- beyond the competition. We will introduce the initiative, along with ongoing projects, such as the Team Interactions Study (TIES) exploring how teams organise their workflow using a journaling app.https://static.igem.org/peertube/streaming-playlists/hls/df35f32a-4154-4a69-b16f-2bda488e84a8/3a2a885c-5baf-42b5-9a50-9c452239a2a3-master.m3u8https://video.igem.org/videos/embed/tyDYMqUzWJchzFLLhzfugj1674032020-09-16T12:38:42.972ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/gL8ywmfH63WdQzaVDJ9yqChttps://video.igem.org/lazy-static/thumbnails/3ee1f2a9-ebb6-4176-a171-4d308aba81fa.jpgMaximizing Benefits, Minimizing Risks - iGEM 2020 Opening Weekend FestivalHow might your team’s solution to one problem lead to other problems? Could your project be misused? In this workshop, you and your team will have the opportunity to analyze an idea for an iGEM project for potential risks and hazards. Learn, with the help of the Safety and Security Committee, how to maximize the benefits of your work! Presented by: Piers Millett and Pim Klaassen Safety & Security Committee, Human Practices Committee https://2020.igem.org/Safety See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/7fa2771a-f45d-4934-bb7a-d070f4f5cad4/a402d304-2a57-48b6-b5ac-89f43237c9f9-master.m3u8https://video.igem.org/videos/embed/gL8ywmfH63WdQzaVDJ9yqC2518032020-09-16T12:46:22.200ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/9mXcm9FVedTD4k49RemXJthttps://video.igem.org/lazy-static/thumbnails/3f0e1953-cc22-4bf4-8b5a-fa89224f508f.jpgWondering about Your High School iGEM Journey? A Conversation with HS iGEM Alumni (Asia, NA)High school iGEMers, join alumni and others from around the world to network and chat! This session is an open time to ask questions and concerns you have toward the iGEM experience and hear stories and experiences from past alumni. Maybe you can make contacts for collaboration? Or you might find teams working on a similar topic! We hope to see you there. Moderated by: Claudia Troncone After iGEM High School Committee https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/43b6000d-6af1-4b84-8b5d-1d2f2b6d536b/1fe6b437-d5c4-48ed-ae0a-f8b7b1c5d03c-master.m3u8https://video.igem.org/videos/embed/9mXcm9FVedTD4k49RemXJt2688052020-09-16T12:55:22.222ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/26pNwxjq1Hucxh3fSRHGV2https://video.igem.org/lazy-static/thumbnails/105528b4-6a55-4e8d-9c37-4e5614f363c0.jpgWondering about Your High School iGEM Journey? A Conversation with HS iGEM Alumni (Europe,Asia)High school iGEM teams! We need your ingenuity and creativity! You will work with other iGEMers to rapidly develop a synbio iGEM solution for a current global issue. Afterwards, your team will pitch your solution to a panel of experienced iGEM Mentors from the Mentorship program! The winning team will win a chance for a special 45 minute session with selected panelists. We hope this fun session will help high school teams develop brainstorming skills and presentation skills for the season ahead! Moderated by: Jeff Hu After iGEM High School Committee https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/08da86b0-2dd2-4030-9773-85d9acba01db/04383126-25db-437a-bf34-24bce6c4bcfd-master.m3u8https://video.igem.org/videos/embed/26pNwxjq1Hucxh3fSRHGV22805022020-09-16T13:04:45.125ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/jcDrJMSE5P8XYWQTXAZcePhttps://video.igem.org/lazy-static/thumbnails/82564e43-3f22-4a5f-aa01-cff49ed5bc1d.jpgRegional iGEM Stories Asia Pacific Fireside Chat by After iGEM 1That failed PCR? That tear shed over a failed transfection or transformation? How about that triumph when your wiki was finished? The struggle to figure out which parameter was messing your model up, or the worry in the bottom of your stomach before presenting but the relief when it was finished in applause? For iGEM Alum, these are shared experiences, both inside the lab and out. Let’s all reconnect during this pandemic. Moderated by: Jiabao Li, Fankang Meng, Zeeshan Siddiqui,and Ryo Niwa After iGEM Ambassadors https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/9364c0bc-f9e3-48d1-b484-aec597fc48d5/295397d7-29d7-4972-be69-c8b4dc24b490-master.m3u8https://video.igem.org/videos/embed/jcDrJMSE5P8XYWQTXAZceP2628012020-09-16T13:13:39.584ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/gh3dfeLdv7YuUjVWdHP9K9https://video.igem.org/lazy-static/thumbnails/b841264f-ebf7-4e0e-9947-9ba9dd261186.jpgEducation and Accessibility in the SynBio Ecosystem - iGEM 2020 Opening Weekend FestivalPanel discussion on important initiatives to make synthetic biology accessible and inclusive, and increase public engagement to make it more understandable to a wider audience. Topics will include language barriers, gender dynamics in scientific settings, and developing accessible curriculums. Moderated by: Marissa Sumathipala After iGEM Communications Committee + Diversity & Inclusion Committee https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/7bb657c6-befd-42e9-b964-f1645608434e/310e623a-e8e3-486a-a246-d0019753200c-master.m3u8https://video.igem.org/videos/embed/gh3dfeLdv7YuUjVWdHP9K926580112020-09-16T13:22:16.231ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/8HpWBdj4PwQupC4H8dvRg2https://video.igem.org/lazy-static/thumbnails/29039650-4484-4008-aab5-8345ecd5a6a6.jpgFrugal/Low Cost Science: Panel by After iGEM - iGEM 2020 Opening Weekend FestivalDiscussing and taking a deeper look at low-cost science, development, and distribution of affordable scientific tools towards underfunded iGEM teams and labs. The panel will introduce and discuss different discoveries in Frugal Science, the challenges faced and the multitude of opportunities created by award winning scientists. Speakers: Shanti Hedge (Moderator), Dr. Saad Bhamla; Gaurav Byagathvalli; Soham Sinha; Dr. Ally Huang; Bethan Wolfenden After iGEM Communications Committee https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/3e78383b-f1b8-49bd-9bff-8deab07a9bb3/5691d666-27bb-410e-8326-53ff8ebef784-master.m3u8https://video.igem.org/videos/embed/8HpWBdj4PwQupC4H8dvRg23087062020-09-16T13:32:28.455ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/duhW6u4N8NfS4iMmZnZX1uhttps://video.igem.org/lazy-static/thumbnails/f44154db-8edd-4851-89cb-68462a3fde24.jpgCreative Challenge: SynBio SciFi Stories - iGEM 2020 Opening Weekend FestivalA call to all the creative and talented iGEM’ers and Sci-fi fans! We’ll be hosting a fun and casual discussion on the importance of responsible storytelling and creativity in SynBio and the narratives we tell. An unofficial invitation to join us in developing your creative skill and expressing your SynBio SciFi Stories through written stories, plays, films, dance or art pieces. We’ll talk about existing work, sharing recommendations and maybe even sharing some of each other’s work too. Presented by: Kevin Chen (Co-Founder of Hyasynth Bio) and Guilherme Kundlatsch (After iGEM Coordinator and iGEM Ambassador Emeritus) iGEM Entrepreneurship Committee (EPIC) + After iGEM https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/6520ecb2-ed8d-4a6e-9d94-9578c2983530/a19bcc47-f718-4ae0-a2ef-470f7180d772-master.m3u8https://video.igem.org/videos/embed/duhW6u4N8NfS4iMmZnZX1u1989012020-09-16T13:40:42.040ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/iFLBFwWhh8oHQ7JrxAQRXMhttps://video.igem.org/lazy-static/thumbnails/a46b0b45-7e2b-49aa-8009-06dd2ea1d2d1.jpgVoice of Life: Interview with Researchers (by iGEM Team Nanjing China)In this team-led event, iGEMers will talk to Life Science researchers from different universities in China. Through this interview, you can learn more about their research experience in biology, the social value and the prospect of life science and synthetic biology. You will also have a chance to ask questions and chat with the participants. Presented by: iGEM Teams Nanjing China, Fudan, NJU China, ZJU China See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/8f38dbfd-f51f-43ed-af02-355f6a0971c7/ea735bd6-3049-455c-a228-9d73c2d55531-master.m3u8https://video.igem.org/videos/embed/iFLBFwWhh8oHQ7JrxAQRXM1854022020-09-16T13:47:01.672ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/b7jZ2abTV1oJzQB1XU8XuUhttps://video.igem.org/lazy-static/thumbnails/3429d916-b378-47f7-a06f-8cd8654094b4.jpgSoftware Tools for Genetic Design 1 - iGEM 2020 Opening Weekend FestivalIntroduction to software tools for finding parts, designing devices, creating models, and sharing design information. Software that will be demonstrated include SynBioHub, SBOLCanvas, SBOLDesigner, and iBioSim Presented by: Chris Myers Software Committee See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/51dd8c47-f16e-4b57-b39f-a029141bce80/e580374c-fd3c-4d31-9e65-ca98b8dfc1a1-master.m3u8https://video.igem.org/videos/embed/b7jZ2abTV1oJzQB1XU8XuU32770302020-09-16T13:55:58.059ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/bQ8LNrJnLQyuGTbdKUT2qqhttps://video.igem.org/lazy-static/thumbnails/a4139c78-f474-4b0e-868b-bb6d579f8768.jpgHow To Build an Inclusive iGEM Project - iGEM 2020 Opening Weekend FestivalNow more than ever, it is important for all iGEM members to build an open and welcoming scientific community. Take action with the D&I Committee to create a more diverse and inclusive iGEM! We will discuss some outstanding previous examples of inclusivity in iGEM, highlight the ways in which our committee can help to improve the inclusivity of iGEM projects, and share some inspiration for 2020 teams. Then it’s your turn to share ideas and questions. Presented by: Anne Meyer, Cibele Zolnier, Divya Israni, and Asal Golshaie Diversity & Inclusion Committee https://2020.igem.org/Resources/Diversity See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/57b3e0a3-0ecf-4d14-b1f5-f5e1276558c4/da506b35-4a04-4c22-9bfc-2f9131044070-master.m3u8https://video.igem.org/videos/embed/bQ8LNrJnLQyuGTbdKUT2qq2807012020-09-16T14:06:18.827ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/jrepxTgUySK1m8Hiv6vrmxhttps://video.igem.org/lazy-static/thumbnails/b2d9a039-5ec8-4272-aae2-ca8f130f212f.jpgRegional iGEM Stories: North America (Fireside Chat by After iGEM)Oof. That failed PCR? That tear shed over a failed transfection or transformation? How about that triumph when your wiki was finished? The struggle to figure out which parameter was messing your model up, or the worry in the bottom of your stomach before presenting but the relief when it was finished in applause? For iGEM Alum, these are shared experiences, both inside the lab and out. Let’s all reconnect during this pandemic. Moderated by: Melody Wu, Yoshi Goto, and Sara Far After iGEM Ambassadors https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/954a5a15-68aa-4132-a3a2-c68e56a837e3/3889b9c4-7dd7-4900-af06-68de94dc0bcd-master.m3u8https://video.igem.org/videos/embed/jrepxTgUySK1m8Hiv6vrmx3280022020-09-16T14:16:37.464ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/wGSjvnYZgExD1MrW2o7SHKhttps://video.igem.org/lazy-static/thumbnails/dc6119e3-f616-4af1-a5df-4b5e03a9f49b.jpgRegional iGEM Stories: Latin America (Fireside Chat by After iGEM)[PT] Junte-se aos embaixadores LATAM para uma bate-papo casual! Vamos compartilhar histórias do iGEM na América Latina com Alumni da região. Convidamos você a participar e conversar conosco em português, espanhol e portuñol! [ES] ¡Únete a los Embajadores Latinoamericanos para una charla casual! Vamos a compartir historias de iGEM en América Latina con varios alumni de la región. !Te invitamos a unirte y a conversar con nosotros en Portugués, Español y Portuñol! Moderated by: Cibele Zolnier, Daniel Dominguez, and Carolina Elizondo After iGEM Ambassadors https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/f8a6ebbb-bd15-48c0-bdda-14537d721d6d/cca4123b-a179-4cbb-8ccb-441d3f1f9c00-master.m3u8https://video.igem.org/videos/embed/wGSjvnYZgExD1MrW2o7SHK4332022020-09-16T14:29:40.770ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/7FArBH3WiZ2rufxysETCbKhttps://video.igem.org/lazy-static/thumbnails/cd97b35b-c866-4efb-b0e4-a5eb809dbc57.jpgMolecular Cloud - GenScript - iGEM 2020 Opening Weekend FestivalJoin us and learn to use the free bioinformatics toolbox offered by GenScript and MolecularCloud. Presented by: Jason Meyer - GenScript https://2020.igem.org/Sponsors/GenScript See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/361e107d-32c7-4438-9c89-2681371c4397/2704341f-f29b-4121-8463-1552801181be-master.m3u8https://video.igem.org/videos/embed/7FArBH3WiZ2rufxysETCbK2263012020-09-16T14:40:14.286ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/hnzCRMQvFDDAs8PGQBh8sHhttps://video.igem.org/lazy-static/thumbnails/b71e17d3-c307-4fcf-9a20-3c94b2377e7c.jpgCloud based software for efficient virtual collaboration - iGEM 2020 Opening Weekend FestivalVirtual collaboration is critical for synthetic biology given today’s current circumstances. At Benchling, we want to make collaboration more effective for all iGEM teams and bring awareness to free, intuitive software tools which accomplish this. Join us for this workshop where we’ll give a live demonstration of how you can integrate these tools into your workflows and discuss collaboration models with other iGEM teams across the globe. Presented by: Benchling https://2020.igem.org/Sponsors/Benchling See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/849590fb-7cb6-4af0-8251-57642aa34e39/2ce673c0-1751-4a28-94c9-6876582921af-master.m3u8https://video.igem.org/videos/embed/hnzCRMQvFDDAs8PGQBh8sH1691012020-09-16T14:47:07.537ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/3okMGcuU23fbH5KV7MmWAWhttps://video.igem.org/lazy-static/thumbnails/17a9cac8-089d-4f36-b048-5eac8e06a609.jpgModelling for Synthetic Biology - iGEM 2020 Opening Weekend FestivalRun through on how to effectively model biological systems. Presented by: Alejandro Vignoni Measurement Committee https://2020.igem.org/Measurement See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/1350d5be-1d39-4bf9-a30a-23884c1efaf2/d0f7933f-cef9-4873-bab9-8fce4727d745-master.m3u8https://video.igem.org/videos/embed/3okMGcuU23fbH5KV7MmWAW31270292020-09-16T14:56:10.320ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/5PLhmn5m61uhm1j99PrDTehttps://video.igem.org/lazy-static/thumbnails/b1807dc2-9a8e-4e65-bbe6-c26160d52ab8.jpgiGEM Startup Stories by EPIC - iGEM 2020 Opening Weekend FestivalA discussion of the Entrepreneurial career opportunities after the competition with an introduction to iGEM Entrepreneurship Program (EPIC) and panel discussion with iGEM entrepreneurs at various stages of their career. Moderated by: Will Wright (iGEM Director of Entrepreneurship) and Albert Annis (Co-Chair of EPIC) iGEM Entrepreneurship Committee (EPIC) https://igem.org/Startups See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/270fcd31-10b4-4658-baad-d6f4bf3f49a7/c4b8c137-64a7-4b45-86a3-eca8b59aec14-master.m3u8https://video.igem.org/videos/embed/5PLhmn5m61uhm1j99PrDTe3045082020-09-16T15:06:44.723ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/p2kMs9NeQ5wERJ6DVxKY5bhttps://video.igem.org/lazy-static/thumbnails/ec8d24a6-8732-43e7-9377-2fca8c90d335.jpgHow To Avoid Plagiarism in Your Work - iGEM 2020 Opening Weekend FestivalPlagiarism is one of the most sensitive topics since ages. When you are designing an iGEM project, this responsibility increases 10 times more. iGEM is an open platform where teams learn from each other and get inspiration to build their projects - biobricks are an amazing example of this collaboration. Every project is a story, and that story needs to be transparent and lucid. Presented by: Naina Goel and Peter Carr (iGEM Director of Judging) After iGEM Policy Committee https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/ba722003-3068-4942-b67e-6dee9c661c5a/bbf8606b-9ef2-4b77-bcf3-e84252c3403f-master.m3u8https://video.igem.org/videos/embed/p2kMs9NeQ5wERJ6DVxKY5b1441022020-09-16T15:13:43.040ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/xvUqKUvmccVAaPRRHmGvUshttps://video.igem.org/lazy-static/thumbnails/4e2b1f32-d3df-4688-88d3-07a568d8c47a.jpgEngineering Biological Information Processing Systems - iGEM 2020 Opening Weekend FestivalIntroduction to principles of biological circuit engineering, including calibrated measurement, device characterization, and predictive modeling Presented by: Jacob Beal Measurement Committee https://2020.igem.org/Measurement See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/ff382d4e-9a15-4f57-96f7-76fab369a8d6/1000d97a-4866-4b63-a6b9-1a7a7372d112-master.m3u8https://video.igem.org/videos/embed/xvUqKUvmccVAaPRRHmGvUs28780112020-09-16T15:21:39.873ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/9rfa1jXEuTL1mz7uH71W6Nhttps://video.igem.org/lazy-static/thumbnails/9b107a6e-2f0d-43dc-906b-9635ed5e1897.jpgiGEM & The Sustainable Development Goals - iGEM 2020 Opening Weekend FestivalPresenting the SDGs as an open framework that takes a deeper look at the challenges that we face in each of our local regions and how we can collectively take action on these. This panel will introduce the SDGs in context of iGEM and discuss the challenge and opportunities when working towards sustainable goals with experts in the field. Moderated by: Will Wright (iGEM Director of Entrepreneurship), Todd Kuiken, and Jake Finan iGEM SDG Working Group See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/444f6d51-7e5d-4400-abbf-0800006872e8/d3bcaba1-ac50-4cd0-915b-9b4881e2a962-master.m3u8https://video.igem.org/videos/embed/9rfa1jXEuTL1mz7uH71W6N3296012020-09-16T15:32:21.196ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/mnv36vXzycjDeDieQMijYDhttps://video.igem.org/lazy-static/thumbnails/8a4f5bed-7aa6-4359-bb15-3d55fda5192e.jpgDeveloping Synthetic Biology Designs using ShortBOL - iGEM 2020 Opening Weekend FestivalThe Synthetic Biology Open Language (SBOL) is an emerging synthetic biology data exchange standard, designed primarily for unambiguous and efficient communication of data about synthetic biology designs, builds and tests. However, preparation of SBOL can be difficult for nontrivial designs. Here, we describe ShortBOL, a lightweight SBOL scripting language that bridges the gap between manual editing, visual design tools, and direct programming. ShortBOL is a shorthand textual language developed to enable users to create SBOL designs quickly and easily, without requiring strong programming skills or visual design tools. Presented by: Anil Wipat, Matty Crowther and Angel Goni-Moreno Software Committee See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/a4f74959-1f2f-4746-9a29-c5a86faebe95/c6236ee5-fbe0-46fe-8da7-f7f542a1aa46-master.m3u8https://video.igem.org/videos/embed/mnv36vXzycjDeDieQMijYD2447062020-09-16T15:41:33.680ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/ahBmNPmuSJyRLp1MYD1L44https://video.igem.org/lazy-static/thumbnails/8c8d25d6-bcd8-4a6a-90a9-e518c2c78743.jpgJOGL: Fostering Open Collaboration Between iGEM Teams - iGEM 2020 Opening Weekend FestivalIn this time of global crisis, the need for a collective response at the planetary scale has never been so relevant. The usual paths for innovation and research don’t really accommodate this objective as being the first to bring a solution is not as important as making one that can be manufactured and distributed equally everywhere in the world. Working together on open source solutions in fact has never been so important than today. In this perspective, the iGEM community has more capacity than most existing actors to imagine, develop and implement open source and low cost biotech solutions to help fight the Covid19 crisis and climate change. For that reason, the iGEM foundation has decided to partner with Just One Giant Lab (JOGL), a non-profit organisation developing the open science and innovation platform app.jogl.io. The session will introduce iGEMers to the use of JOGL and will be interactive. Presented by: Thomas Landrain and Marc Santolini Co-founders of Just One Giant Lab (JOGL) https://app.jogl.io/program/iGEM2020 See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/4b33f059-2816-41fd-be06-2975136e6d71/6146dbad-f551-4067-bb3b-b908d7a1d764-master.m3u8https://video.igem.org/videos/embed/ahBmNPmuSJyRLp1MYD1L442306022020-09-16T15:49:30.738ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/ddiHA1q46qs8rN8VqhV9Fohttps://video.igem.org/lazy-static/thumbnails/9ffb9f26-b255-4369-8242-1c5a053d7431.jpgCloning & Assembly Plans - iGEM 2020 Opening Weekend FestivalIn depth coverage of designing sequences, cloning, assembly plans, and other considerations with genetic circuits. Presented by: Alexis Casas, Jacob Beal, Ian Schlander and Peter Carr Measurement Committee https://2020.igem.org/Measurement See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/62e581f5-84c8-47da-b9f2-9d33aa216d14/04ed4279-0335-43f5-aced-8c6b8a74867a-master.m3u8https://video.igem.org/videos/embed/ddiHA1q46qs8rN8VqhV9Fo26970122020-09-16T15:57:57.079ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/agy1ASU2Cxnox8ac4fU9sqhttps://video.igem.org/lazy-static/thumbnails/173fba23-173c-4dfc-b4f1-552b222a78d2.jpgDatanator Demo - iGEM 2020 Opening Weekend FestivalMechanistic models are a valuable tool for understanding and designing biochemical networks. However, models require quantitative data, which is often difficult to obtain. The Datanator web application and REST API (https://datanator.info) can help researchers find the data needed to model biochemistry such as metabolite concentrations, protein abundances, RNA turnover rates, and reaction rates. Presented by: Datanator (Yosef Roth, Zhouyang Lian) Software Committee See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/4b0e21af-3a6c-44d0-8d76-80ed9597373c/bf9ddd18-39b0-4116-b09c-39942209ce45-master.m3u8https://video.igem.org/videos/embed/agy1ASU2Cxnox8ac4fU9sq1692032020-09-16T16:05:07.792ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/2PZDRGsme57d8f4yb7fdgEhttps://video.igem.org/lazy-static/thumbnails/082aeca3-386d-470d-be14-6a8c3737a38f.jpgBiodiversity, the Nagoya Protocols & Digital Sequence Sharing - iGEM 2020 Opening Weekend FestivalThe Convention on Biological Diversity, an international treaty governing the movements of living modified organisms (LMOs) resulting from modern biotechnology, is promoting discussions around the conservation of biological diversity, the sustainable use of its components and the fair and equitable sharing of the benefits arising out of the utilization of genetic resources. The last topic consists of Access and Benefit Sharing (ABS) and was implemented by the Nagoya Protocol in 2010, entering into force in 2014. The scope of this presentation will highlight the challenges of implementing legislation on Digital Sequence Information (DSI) as genetic resources, especially in developing countries; the threat this represents for developing synthetic biology and biotechnology; and the importance of iGEM teams to get more involved in policy. Presented by: Andre Hermann After iGEM Policy Committee https://igem.org/After_iGEM See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/0ecca026-c2bd-486e-956d-5730162d618c/7181d909-588e-418d-a47e-2a239a49ef88-master.m3u8https://video.igem.org/videos/embed/2PZDRGsme57d8f4yb7fdgE1815062020-09-16T16:11:28.724ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/3Txna3osoodrpuotbbnb8Jhttps://video.igem.org/lazy-static/thumbnails/a13033e9-6765-4340-a2ab-a77a29084a75.jpgA Secret Key to Mass Media by iGEM Team Moscow - iGEM 2020 Opening Weekend FestivalSocial networks are extremely crucial nowadays. Proper social media maintenance can increase chances of getting a job, promoting a project, raising money and finding support from people. We are going to talk about what social networks are, about the specifics of each, about different strategies for maintaining them in order to attract attention or find useful contacts. We will share a few tips on how to attract more attention to social media and boost your account. We will also give teams a small task: all teams will have a chance to create a post that unites different iGEM teams and share it on their social media accounts. Presented by: iGEM Team Moscow State University 2020 See more from the iGEM 2020 OPENING WEEKEND FESTIVAL: https://2020.igem.org/Opening_Weekendhttps://static.igem.org/peertube/streaming-playlists/hls/176489ef-521f-4845-a89f-87fc44f4ab10/357e1244-3e90-498b-8c92-8163fa33852a-master.m3u8https://video.igem.org/videos/embed/3Txna3osoodrpuotbbnb8J1717072020-09-16T16:17:36.508ZYES2020 Opening Weekend FestivalNOhttps://video.igem.org/w/745R1hTkSK2oRPTeD2WjTWhttps://video.igem.org/lazy-static/thumbnails/93bde4e7-fb2c-487f-943b-6fc795b83549.jpgWomen in STEM 1/7: Panel Discussion (iGEM Global Meetup) - After iGEMiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup This panel discussion is part of an interview series on Women in STEM: https://2020.igem.org/Teams/Ambassadors/Women_In_STEM Together, let’s celebrate Women in Science! After an amazing “Women in STEM” Keynote Session at the iGEM Global Meetup, we now invite you to watch a complete interview with each one of our outstanding panelists. The main idea of this Interview Series is to inspire this and the next generations of women and girls, who are interested in science. Even more, we hope to encourage everyone, men and women, to go further in pursuing their careers in STEM (Science, Technology, Engineering, and Mathematics) and do not settle for less. We gathered speakers with diverse backgrounds and experience from different regions, all of them doing amazing jobs and leading their fields. Every week, join us and hear their inspiring stories of inclusion and impact from all over the world! Hosted by: After iGEM Ambassadors Interview Schedule: - September 17th: Elena Rosca - September 24th: Catalina Lopez Correa - October 1st: Heather Beem - October 8th: Aravinth Panch - October 15th: Jingjing Wang - October 22nd: Nadine Bongaertshttps://static.igem.org/peertube/streaming-playlists/hls/31050c8e-d378-434f-968f-e865b0586bac/89ec0bdb-f15e-411a-abdc-4ecbec407a80-master.m3u8https://video.igem.org/videos/embed/745R1hTkSK2oRPTeD2WjTW36520112020-09-17T22:10:34.600ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/wfJKMhhyTv2vWQyoftYPa8https://video.igem.org/lazy-static/thumbnails/62a636ef-1b64-4a36-b9ac-320c383a2f9e.jpgWorld of 2030: Sustainable Development Goals (Part 1/2 - Talk)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Our world is changing - what will it look like in 2030? How can the Sustainable Development Goals help guide us towards a more equitable and sustainable future? And what role will Synthetic Biology and iGEM community have in shaping this future? Join us for this keynote for discussing this and more. Hosted by: Will Wright (Director of Entrepreneurship at iGEM HQ) Speaker: Manuella Cunha Brito"https://static.igem.org/peertube/streaming-playlists/hls/f500ebd2-d5a1-4f15-90e2-ea95e39b455d/1bfd4b45-bf38-42f0-95f2-2c57bce12f55-master.m3u8https://video.igem.org/videos/embed/wfJKMhhyTv2vWQyoftYPa81120062020-09-17T22:17:51.020ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/phrfVa7b84gLWg9RpjxdPGhttps://video.igem.org/lazy-static/thumbnails/63bda8db-d53f-44aa-8b7e-3bf20e3d2b8a.jpgWorld of 2030: Sustainable Development Goals (Part 2/2 - Discussion)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Our world is changing - what will it look like in 2030? How can the Sustainable Development Goals help guide us towards a more equitable and sustainable future? And what role will Synthetic Biology and iGEM community have in shaping this future? Join us for this keynote for discussing this and more. Hosted by: Will Wright (Director of Entrepreneurship at iGEM HQ) Speakers: Manuella Cunha Brito, Todd Kuiken"https://static.igem.org/peertube/streaming-playlists/hls/bc8da7a0-5b77-436e-9c86-8b81be335916/9bef60dd-d07d-4670-99c2-59480bc5d5f5-master.m3u8https://video.igem.org/videos/embed/phrfVa7b84gLWg9RpjxdPG1177012020-09-17T22:21:30.763ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/j6TgMrnupHz5UtgEjkjbHShttps://video.igem.org/lazy-static/thumbnails/0c9e1260-dc47-44a1-9311-86fe5103e8a0.jpgWorldwide Synergy of Synthetic Biology (Part 1/2 - Interviews)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup iGEMers are building a better world by solving problems with the help of synthetic biology. By competing in iGEM, teams around the globe are addressing regional and global issues both inside and outside the lab. The joint force from iGEM communities is impacting this world by providing solutions to domestic and international challenges in healthcare, agriculture, manufacture, environment, and more. Meanwhile, worldwide synergy has become one of the main themes when referring to the future of synthetic biology by stakeholders from academia, industry, and government. In this keynote session, we will have guest panelists who are regional champions in synthetic biology to share their thoughts on the topic. Hosted by: Dorothy Zhang (Director of Community Engagement at iGEM HQ) Speakers: Pamela Silver, King Chow, Leonardo Rios Solis, Danielle Pedrolli, Nicolas Krink, and Jiahai Zhou"https://static.igem.org/peertube/streaming-playlists/hls/9296cff2-f7e8-4df2-8117-8b9a826c5724/cdadfd9d-5a61-47b6-b91c-af9733032e41-master.m3u8https://video.igem.org/videos/embed/j6TgMrnupHz5UtgEjkjbHS21950102020-09-17T22:26:25.447ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/af18hh6CMBrmxoLEAKgPkchttps://video.igem.org/lazy-static/thumbnails/f7436959-90ce-41bd-8792-35f74f184365.jpgWorldwide Synergy of Synthetic Biology (Part 2/2 - Discussion)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup iGEMers are building a better world by solving problems with the help of synthetic biology. By competing in iGEM, teams around the globe are addressing regional and global issues both inside and outside the lab. The joint force from iGEM communities is impacting this world by providing solutions to domestic and international challenges in healthcare, agriculture, manufacture, environment, and more. Meanwhile, worldwide synergy has become one of the main themes when referring to the future of synthetic biology by stakeholders from academia, industry, and government. In this keynote session, we will have guest panelists who are regional champions in synthetic biology to share their thoughts on the topic. Hosted by: Dorothy Zhang (Director of Community Engagement at iGEM HQ) & Varsha Jaisimha (iGEM Ambassador to Asia) Speaker: POH Chueh Loo"https://static.igem.org/peertube/streaming-playlists/hls/4ad6bcf2-c79f-4864-b9c2-8456d4e666bd/b70d0e66-4eb1-444c-962c-1680c7782170-master.m3u8https://video.igem.org/videos/embed/af18hh6CMBrmxoLEAKgPkc1425022020-09-17T22:31:36.496ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/6QyjCLgZHRH3epczrJcr1xhttps://video.igem.org/lazy-static/thumbnails/bc917a4e-dc09-449f-a6b0-c416bbddb239.jpgUniversity BioMakerspaces: An Emerging Network (iGEM Global Meetup) - After iGEM"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup University community biolabs or biomakerspaces are reshaping the way students and young researchers engage in biological research and innovation, funneling startup culture, democratic idealism, and academic science into a single space. Several of these labs have started a BioMakerNetwork to support students and other university bioenthusiasts who are interested in starting biomakerspaces in their own universities. Hosted by: Melody (After iGEM Ambassador to North America) "https://static.igem.org/peertube/streaming-playlists/hls/2f45501d-a4dd-4c70-9efd-737b4e7eb45b/d7e29c8b-b7c1-4e1b-a0e8-5d2d8b3195a5-master.m3u8https://video.igem.org/videos/embed/6QyjCLgZHRH3epczrJcr1x3528052020-09-17T22:41:07.073ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/vb3g4o8DDRDRMz8qjejsp8https://video.igem.org/lazy-static/thumbnails/2b2e99d2-66f6-430c-81e0-325cee5c6499.jpgOptimizing Team Structure for SynBio Projects (iGEM Global Meetup)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup iGEM teams have diverse organizational structures, presenting unique challenges. EduComm and mentors will share experiences from varying team structures/approaches. Join us to learn how to optimize your team structure for success with different projects. This introductory workshop is suitable for newer teams/members, but also returning teams. Hosted by: After iGEM Education Commitee "https://static.igem.org/peertube/streaming-playlists/hls/ec3fd9f4-4723-42c1-8e63-cf0a46580f45/d006de9e-385e-4e73-b812-627fbcfb3c92-master.m3u8https://video.igem.org/videos/embed/vb3g4o8DDRDRMz8qjejsp82790072020-09-17T22:51:56.525ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/fXwRDhtkP62fAFAJ7KEZFFhttps://video.igem.org/lazy-static/thumbnails/72c5fa25-a19a-41a6-b7a8-aa4135c277db.jpgHow to Present your Project by Story-Telling? (iGEM Global Meetup)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Whether you’re pitching a potential product or trying to communicate your scientific achievements, you’ll want to tell a clear story in your presentation. Hear tips from veteran iGEM judges JC, who has successfully pitched and presented his startup, and Tessa, who fondly recalls drilling her iGEM presentations the night before. Hosted by: Human Practices Committee "https://static.igem.org/peertube/streaming-playlists/hls/7920dd3d-8e4d-4667-9315-32f7f2d221e1/77f83bc7-c38e-4eff-ab51-98e7ae6a282a-master.m3u8https://video.igem.org/videos/embed/fXwRDhtkP62fAFAJ7KEZFF21520232020-09-17T23:00:20.299ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/5AGabuanacqdKCpPpasdnzhttps://video.igem.org/lazy-static/thumbnails/4e95821e-1d06-4b3a-8f4b-f1f25b44207f.jpgHow to Prepare for the Entrepreneurship Prize? (iGEM Global Meetup)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup What does it take to suceed as an iGEM Biofounder? What are the new judging criteria for the in the best supporting entreprenuership prize? What resources are availble to beyond the competition? Join to find out this and more... Hosted by: iGEM Entrepreneurship Committee (EPIC) "https://static.igem.org/peertube/streaming-playlists/hls/253c975b-d71c-429c-9904-e39ebf02ead3/8b518e30-f8af-4791-aabd-a1cdf0140f19-master.m3u8https://video.igem.org/videos/embed/5AGabuanacqdKCpPpasdnz1582072020-09-17T23:07:02.719ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/eEYDbUkNWatyuzi2sfEi5chttps://video.igem.org/lazy-static/thumbnails/2c02d6a6-c221-4dd4-9f27-de27355927b7.jpgHow to Map your Team Projects to Sustainable Development Goals? (iGEM Global Meetup)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Join as we discuss the role of SDGs as a framework for your projects, highlighting inspiration from case studies and present the new SDG prize judging criteria. Hosted by: iGEM SDG Working Group "https://static.igem.org/peertube/streaming-playlists/hls/6eb7f8e2-4034-4be6-935d-adc1d25c8527/0125b23c-c058-418d-b82f-760ba72817c6-master.m3u8https://video.igem.org/videos/embed/eEYDbUkNWatyuzi2sfEi5c1911072020-09-17T23:13:21.494ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/6VkedTbTtE5xb68LyCr4BBhttps://video.igem.org/lazy-static/thumbnails/31ed919a-7ece-43e2-bed0-030bea647728.jpgHow to Foster Collaborations on the JOGL Platform? (iGEM Global Meetup)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Our collaboration partner Just One Giant Lab is offering a platform where iGEM2020 teams can collaborate to solve problems that address the Sustainable Development Goals. JOGL enhances the accessibility to skills and resources that you lack within your team. Learn more at https://app.jogl.io/program/iGEM2020?tab=about. The iGEM teams 2020 have the possibility to list their projects in the JOGL platform and foster better collaborations to solve local and global challenges. Ojas, an iGEM Ambassador 2020 would give a demo to the platform and attend to any questions in this regard. Hosted by: Ojas Tulsyan (After iGEM Ambassador) & Just One Giant Lab "https://static.igem.org/peertube/streaming-playlists/hls/2feff677-d3a8-4bcf-a312-665bb9cb4925/7749ab5c-4130-4c1c-b146-1fa686da5b41-master.m3u8https://video.igem.org/videos/embed/6VkedTbTtE5xb68LyCr4BB2303062020-09-17T23:20:52.810ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/irzyBPzhnkqb7dgaNw2zaohttps://video.igem.org/lazy-static/thumbnails/b4ed2f7b-896f-43f6-826c-d45e501317d4.jpgHow to Build your Team Wiki? (iGEM Global Meetup)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Join us to learn how to navigate building your wiki and making its organization aesthetically pleasing and `brand` focused, while still meeting all of your judging requirements! Hosted by: After iGEM Education Commitee "https://static.igem.org/peertube/streaming-playlists/hls/8d3da290-72d1-45c3-a77d-195000944e4c/dcf770b9-7894-485a-98f9-bf64766659f9-master.m3u8https://video.igem.org/videos/embed/irzyBPzhnkqb7dgaNw2zao25900412020-09-17T23:29:33.229ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/oNHVmUcswr6pQVCQcieciehttps://video.igem.org/lazy-static/thumbnails/f22b581d-f63a-4610-a96d-da006fb541fc.jpgCreate & Automatically Deploy your iGEM Wiki with our iGEM Wiki Starter Pack - BITS Goa"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup We would like to present our software packages that make creating and uploading iGEM wikis easier. Our setup allows teams to quickly create responsive and accessible wikis from simple Markdown text. It integrates with CrossRef API to make writing references easier, and also allows continuous integration and deployment with Travis. Hosted by: Team BITS Goa "https://static.igem.org/peertube/streaming-playlists/hls/b8af191a-8bd7-4259-9147-06b70eae436b/62b80524-9440-4408-b238-707dadf6c087-master.m3u8https://video.igem.org/videos/embed/oNHVmUcswr6pQVCQciecie14700472020-09-17T23:36:12.832ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/3zjXPWp9dFYgQMzLUgBWbKhttps://video.igem.org/lazy-static/thumbnails/2cb5c58f-5616-49f3-b868-67d8bfe1ce39.jpgCommunicating Science to Non-Experts (iGEM Global Meetup)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Join us to learn how to make the most of the opportunities you have to share your work with others. We will discuss how you can best communicate your complex science in a way that will make everyone not only understand, but fall in love with your research. Hosted by: After iGEM Education Commitee "https://static.igem.org/peertube/streaming-playlists/hls/14d981ff-4e6e-4ac9-a67f-30c8137b8a6f/7f539fd5-19e4-4ab0-b26c-9c596aa076ae-master.m3u8https://video.igem.org/videos/embed/3zjXPWp9dFYgQMzLUgBWbK25490122020-09-17T23:43:27.353ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/4rwi1JckEaH6bZdXTJL8Dohttps://video.igem.org/lazy-static/thumbnails/885495a0-4fc3-4ae4-8eaf-5400faf6a594.jpgCCiC Meet-Up (iGEM Global Meetup)"iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Introducing history and evolution of the Chinese iGEM community, CCiC, to the iGEM global community. Sharing the experience of running and organizing local activities and flourishing the local community development with other iGEM local community Hosted by: CCiC (Conference of China iGEMer Community) "https://static.igem.org/peertube/streaming-playlists/hls/1bdbaddc-e052-4cf8-8baf-62eeac8d7594/00307108-f922-481b-8d87-a9f78c988f7a-master.m3u8https://video.igem.org/videos/embed/4rwi1JckEaH6bZdXTJL8Do1849052020-09-17T23:50:59.847ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/unAJcFstaJ6sgAEU69DsNhhttps://video.igem.org/lazy-static/thumbnails/59e0a20b-e445-4e49-84de-50c22ce348da.jpgTween Synthetic Biology (iGEM Global Meetup) - Uni MelbourneiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup An exploration in engaging younger audiences (ages 5-12) with complex scientific topics like synthetic biology. A brainstorming session and discussion on challenges and solutions for engagement and communication with specific strategies to connect with local community groups. For example, teaching construct building through story telling and puzzle pieces at community centres Hosted by: Team Uni Melbournehttps://static.igem.org/peertube/streaming-playlists/hls/e5c3e73e-a81f-401e-88e9-afcbf257088c/5d514f26-daa0-4c4e-9555-3ea982231adf-master.m3u8https://video.igem.org/videos/embed/unAJcFstaJ6sgAEU69DsNh420062020-09-21T19:24:14.469ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/v7eJx1HpMeXyTfgRtfQRNyhttps://video.igem.org/lazy-static/thumbnails/92436642-80c5-4566-9151-2bdfd5acdf4a.jpgWorld of 2030: Sustainable Development Goals (Part 1/2 - Talk)iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Our world is changing - what will it look like in 2030? How can the Sustainable Development Goals help guide us towards a more equitable and sustainable future? And what role will Synthetic Biology and iGEM community have in shaping this future? Join us for this keynote for discussing this and more. Hosted by: Will Wright (Director of Entrepreneurship at iGEM HQ) Speaker: Manuella Cunha Britohttps://static.igem.org/peertube/streaming-playlists/hls/ebb7f27e-6bd0-4366-9298-4d884e754870/008a191d-1c99-475b-b0b0-25332e13650a-master.m3u8https://video.igem.org/videos/embed/v7eJx1HpMeXyTfgRtfQRNy1120042020-09-21T19:27:08.239ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/3vsGUxvzvegSWzsHHniMjrhttps://video.igem.org/lazy-static/thumbnails/eb2c6014-a6e6-4b61-8268-263479c0a7fd.jpgCombating AMR using Machine Learning (iGEM Global Meetup) - IITRiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup We will host a basic introduction to Machine Learning, including its various applications, and how machines learn. It will be followed by an interesting tutorial on combating antimicrobial resistance using machine learning i.e., its role in drug combination therapy. To prepare for the sesion in advance, please look into: https://github.com/TEAM-IGEM-IIT-ROORKEE/machine-learning-tutorial Hosted by: Team IITRhttps://static.igem.org/peertube/streaming-playlists/hls/144f4dea-8b52-420b-b6a2-84812f82b759/c2f80639-ff2e-4ddb-8bb2-5087ba4fc317-master.m3u8https://video.igem.org/videos/embed/3vsGUxvzvegSWzsHHniMjr2430082020-09-21T19:43:28.199ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/wzjHGiSThqfjFP3SWgKQghhttps://video.igem.org/lazy-static/thumbnails/0fa6b0e5-0580-4c73-ba32-d020bdc97ca8.jpgLanguage Project & Accessibility initiatives (iGEM Global Meetup) - Rochester, Madras & BITS GoaiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup BITS Goa and the University of Rochester are collaborating with IIT Madras to create a multifaceted approach that includes art, dance and music to foster science communication and to make science more accessible to communities regardless of their social or linguistic backgrounds. Further, we also seek to increase accessibility of resources through our ASL initiatives and by making iGEM wikis more accessible. Hosted by: Teams Rochester, Madras & BITS Goahttps://static.igem.org/peertube/streaming-playlists/hls/f7993d79-1163-4801-b513-f3176b46dd1e/f218f456-9172-4920-8825-851f56af8783-master.m3u8https://video.igem.org/videos/embed/wzjHGiSThqfjFP3SWgKQgh917022020-09-21T19:49:17.341ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/js4zBwbpa4QVZA5aes69Fzhttps://video.igem.org/lazy-static/thumbnails/483dce37-d7a8-4f35-bed7-791e6c8dbc5c.jpgEssential Entrepreneurship for iGEM teams (iGEM Global Meetup) - ManchesteriGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup iGEM is an enterprise, thus it is essential to integrate relevant business models into human practices. The workshop will cover creation of commercial value, characterisation of markets, forecasting of the markets, commercial issues identification, creation of strategies to maximise commercial benefits and validation of assumptions. Hosted by: Team Manchesterhttps://static.igem.org/peertube/streaming-playlists/hls/95680a34-4624-412c-896e-2180de9633df/a4cd2615-6e43-4811-a341-00053398834b-master.m3u8https://video.igem.org/videos/embed/js4zBwbpa4QVZA5aes69Fz1702052020-09-21T19:55:01.239ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/wFju3tUPuUc4qc7zSvZ9H6https://video.igem.org/lazy-static/thumbnails/65a31941-b088-4caf-a35b-b929e6082cb8.jpgCells that Heal - a Perspective on using Mammalian SynBio to Develop Cellular Therapies - MelbourneiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Broad introduction to cellular therapies as an emerging field and different techniques that we have applied to our project on engineering macrophages to deliver soluble ACE2 as a COVID-19 cellular therapeutic. Followed by a Q&A and discussion of how these strategies may be implemented in audience member`s projects. Hosted by: Team Uni Melbournehttps://static.igem.org/peertube/streaming-playlists/hls/f86f8ec4-b399-4631-9ac9-20fd4922a5a7/bb3f5fb3-ac41-468d-a280-17bbc2f5a431-master.m3u8https://video.igem.org/videos/embed/wFju3tUPuUc4qc7zSvZ9H6969082020-09-21T20:00:09.525ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/jvLMi6HUNnEx1KPsJoeoenhttps://video.igem.org/lazy-static/thumbnails/151570cf-c09f-48eb-81d5-d8e066a9c19d.jpgFunctional Nucleic Acids in iGEM: Uses & Resources (iGEM Global Meetup)iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Functional nucleic acids are central parts of many iGEM projects. In order to encourage the use of functional nucleic acids in the iGEM competition we are collecting resources in a central hub, from biobricks to computational tools, and provide guidelines on their use. Hosted by: After iGEM Academia Committeehttps://static.igem.org/peertube/streaming-playlists/hls/95eca996-2b44-4581-8b92-88420d741ac7/8de7a921-ee82-468c-adf4-d57b7518145b-master.m3u8https://video.igem.org/videos/embed/jvLMi6HUNnEx1KPsJoeoen15700182020-09-21T20:05:32.217ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/2TdSWdQemXZeFMZxKA35A2https://video.igem.org/lazy-static/thumbnails/6a094c08-bbca-4805-867b-dc55b98f7fcc.jpgLearn to Build a Structure: Coot Workshop (iGEM Global Meetup) - KU IstanbuliGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup We are going to do a workshop on how to use the Coot/Wincoot software. Coot software is a largely used software among structural biologists to determine the structure of their proteins. Hosted by: Team KU Istanbulhttps://static.igem.org/peertube/streaming-playlists/hls/0f4001e4-9f18-4794-b58c-6e55666e15d5/88ec0e0a-cc6d-41fa-8036-a617553dd5cf-master.m3u8https://video.igem.org/videos/embed/2TdSWdQemXZeFMZxKA35A218370192020-09-21T20:13:24.423ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/kKKVdWpALiMk46oXJybj6Ghttps://video.igem.org/lazy-static/thumbnails/c60dcc74-e180-4396-91da-c494797efc22.jpgImplementation of Synthetic Biology into Clinical Practice (iGEM Global Meetup) - PatrasiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup How can synthetic biology and especially pharmacogenomics (PGx) be used for treatment individualization? Is there a way to reduce Adverse Drug Reactions (ADRs) and increase a drug`s efficacy when we know a patient`s genetic background? Welcome to the world of personalized medicine. Hosted by: Team Patras https://static.igem.org/peertube/streaming-playlists/hls/9ff9ae8e-2699-4637-8e71-748af4555762/b6592eac-f808-4ee9-b359-caeaaa7b806d-master.m3u8https://video.igem.org/videos/embed/kKKVdWpALiMk46oXJybj6G5290122020-09-21T20:17:34.630ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/63XycEXmZPSRCDvFgK6AgThttps://video.igem.org/lazy-static/thumbnails/2d878187-09f3-4f39-9b04-ac8ccf797d1c.jpgRemote Working - Resource Hub Pitch (iGEM Global Meetup) - VirginiaiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Team Virginia will be introducing and workshopping a potential collaboration with the iGEM Video Technology Committee and teams around the globe to spearhead a new ‘open-source virtual iGEM operations resource’ page in light of adaptations to the covid-19 pandemic, and future virtual capabilities for iGEM teams. Hosted by: Team Virginiahttps://static.igem.org/peertube/streaming-playlists/hls/28e76afe-69bb-42d2-9f19-2c93f62ab079/4905dcc1-a905-4a4f-94ee-d5846cd9bcf4-master.m3u8https://video.igem.org/videos/embed/63XycEXmZPSRCDvFgK6AgT813002020-09-21T20:20:18.037ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/kjFQPWw7h48k8FvcLTgK7ehttps://video.igem.org/lazy-static/thumbnails/fcc430af-b4f6-4a6f-bec2-d4878b7dd551.jpgHow iGEM Changed my Career (iGEM Global Meetup) - Dimitrios MichailidisiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup iGEM may look like just a biology experience, but it can really have an impact on someone’s career. I have planned my iGEM experience and used it to: (1)get a PhD position, (2)find what I am passionate about (hint: not my PhD), and now (3)prepare to switch careers. In this talk, I want to show how this is possible. Hosted by: iGEM Alumni - Dimitrios Michailidishttps://static.igem.org/peertube/streaming-playlists/hls/9c799367-e91c-4469-a9c7-eb46f87e56bd/345edbf4-bfef-466f-97aa-931bc27da46b-master.m3u8https://video.igem.org/videos/embed/kjFQPWw7h48k8FvcLTgK7e8660222020-09-21T20:23:26.338ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/5vG22gRYqq48ZHkD229VPNhttps://video.igem.org/lazy-static/thumbnails/c8a4d949-ff5e-4c50-91ae-0fae0018fb6c.jpgHow to Bake an iGEM Roll (iGEM Global Meetup) - HannoveriGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Let`s bake together! We will bake a biscuit which you can decorate with either the iGEM logo or your team logo. You can join us for the session and bake `live` with us or or enjoy the recipe and bake later. Ingredients: I) ""Colored dough“: 1 protein, 40 g flour, 30 g sugar, 15-30 g oil, Food coloring paste: black, green (or dependent of your logo). II) Cream: 200 ml cream, 5 tsp San-apart, 250 g quark, 1 p. vanilla sugar III) Biscuit: 4 eggs, 1 egg yolk, 4 tablespoons of hot water, 1 pinch of salt, 1 p. vanilla sugar, 120 g sugar, 75 g flour, 75 g starch, 2 teaspoons baking powder IV) filling: 100 g jam, 200 g fruits (for example strawberries or blueberries) Hosted by: Team Hannoverhttps://static.igem.org/peertube/streaming-playlists/hls/2489c923-ede3-45be-a417-6ce1ec428cf8/6fc38dd7-e70f-4caa-a598-a89ec13736e0-master.m3u8https://video.igem.org/videos/embed/5vG22gRYqq48ZHkD229VPN28440182020-09-21T20:33:06.440ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/wkGCYEhpWwvYoYiqMVMVSrhttps://video.igem.org/lazy-static/thumbnails/226039c4-f606-47df-97da-bd7bbe28c09f.jpgThe Global Sci-Comm eMagazine Collaboration (iGEM Global Meetup) - IISER BhopaliGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup The team will pitch their collaboration on creating a sci-comm E-Magazine. There will be stories, games and 90s magazine-style topics for school students around the world. Hosted by: Team IISER Bhopalhttps://static.igem.org/peertube/streaming-playlists/hls/f5b255cf-9a87-40ba-b9f8-565878c662d9/1093d121-a976-40be-b883-3236dfa9ef3a-master.m3u8https://video.igem.org/videos/embed/wkGCYEhpWwvYoYiqMVMVSr6860222020-09-21T20:38:57.440ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/ibuUEjvKB7NhDZLHETpuf8https://video.igem.org/lazy-static/thumbnails/e31e1542-8268-426f-b71f-4339624844c8.jpgWhat can we do to Preserve Soil Biodiversity? (iGEM Global Meetup) - Groningen & NOVA LisboniGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup Soil biodiversity plays a crucial role in providing nutrients, decomposing organic matter and for the overall well-being of the soil ecosystem. However, soil erosion, salinisation, as well as the use of harmful chemicals and GMO plants in agriculture disturbs the microbial communities. Our panel discussion will describe the importance of protecting soil biodiversity and what the agricultural industry and we, as humans, can do to preserve soil ecosystems. Hosted by: Team Groningen & Team NOVA Lisbonhttps://static.igem.org/peertube/streaming-playlists/hls/8b229c2d-b5bd-41a4-a017-06e267b135eb/5d8c5e4d-3b05-4b39-8236-25b2325f3167-master.m3u8https://video.igem.org/videos/embed/ibuUEjvKB7NhDZLHETpuf81477042020-09-21T20:43:30.271ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/kHqZ2SJsZSUmPMY2H3AbDFhttps://video.igem.org/lazy-static/thumbnails/4de3d23e-e08e-43b2-b0d4-59fc1f16b074.jpgThe VRT Hub: Welcoming Videos into iGEM (iGEM Global Meetup)iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup We are adapting iGEM to the new normal! As we are coming closer to the submission deadline for Project Promotion videos, we are hosting an introductory session to our committee, introducing iGEM`s transition into videos, and guiding you through the new VRT hub, and video production resources. Hosted by: iGEM Video & Remote Technology Committeehttps://static.igem.org/peertube/streaming-playlists/hls/9fa6868f-6086-4ae8-ab9a-5772c78d0b41/85e1d1a0-9796-4e55-99b3-786e9d803cfb-master.m3u8https://video.igem.org/videos/embed/kHqZ2SJsZSUmPMY2H3AbDF1875032020-09-22T07:30:48.940ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/hNxfEqHYYfJXBwjpP5Tyichttps://video.igem.org/lazy-static/thumbnails/a9846724-b957-4638-9196-fd1ecf12dc44.jpgBioBlox Tournament: Gaming Stream (iGEM Global Meetup) - VilniusiGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup BioBlox is a multiplayer game about the basics of synthetic biology. Players during the game will compete in the maze full of labs and other scientific things, gel electrophoresis race and many more activities until they will reach the final destination - Giant Jamboree. Hosted by: Team Vilnius-Lithuaniahttps://static.igem.org/peertube/streaming-playlists/hls/8811b134-3eae-4f89-9ee4-1669abb72fbd/3fd80dc2-4466-408c-a50f-3fe7e9581d3d-master.m3u8https://video.igem.org/videos/embed/hNxfEqHYYfJXBwjpP5Tyic14570102020-09-22T07:37:18.102ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/gAEPtA14NJuk1i3rs7Ugiihttps://video.igem.org/lazy-static/thumbnails/94131f51-0f0d-4265-aa7b-b0e35b187078.jpgBITSPilani-Goa_India: SugarGain (2020) - Project Promotion [English]Abstract: Sugarcane, a widely-grown crop, faces the issue of post-harvest sucrose deterioration. This loss is caused by the activity of an enzyme called invertase. Once harvested, invertase cleaves sucrose which reduces sugar retrieval rates by up to 10.25%. The income of sugarcane farmers is dependent on the quality of cane they grow, making them the victims of this problem. We, therefore, wanted to come up with a solution that effectuates grassroots-level changes for sugarcane farmers. Wiki link: https://2020.igem.org/Team:BITSPilani-Goa_India Video Credits: Mime Club BITS Pilani Goa (Instagram : @mimeclub.bpgc) Social Media: Instagram : @igem_bits, Twitter : @igembitsgoahttps://static.igem.org/peertube/streaming-playlists/hls/7e504a75-b11e-4426-9137-c696071a8807/1d3bdc11-a369-42e2-a32a-80b96748cc33-master.m3u8https://video.igem.org/videos/embed/gAEPtA14NJuk1i3rs7Ugii12003052020-09-22T13:29:06.558ZFood&NutritionAsiaIndiaYES2020 Project PromotionsNOhttps://video.igem.org/w/2P9qWu9yNSChZYeyyQTuughttps://video.igem.org/lazy-static/thumbnails/dee211f7-d4ba-496b-9f20-1d1151b5bc23.jpgJilin_China: iGAME (2020) - Project Promotion [English]Abstract: Hello, everyone! We're Jilin_China and our project this year is iGAME. You may wonder... Is it really a game? How is it operated? What's the rule for this game? How can people play this game? Is it fun? How is it connected to synthetic biology? No more hesitation, just click in and take a look at our Project Promotion Video and you'll find it super meaningful! (remember to LIKE us after watching~) Wiki Link: https://2020.igem.org/Team:Jilin_China Video Credits: Yufeng Wen (director), Jiahao Yu (assistant director), Yingzhe Wei & Yufeng Wen (screenwriter), Zheying Mu, Fei Cao (advisor); special thanks to: Xiuyan Guo, Yuchong Wei, Hao Zeng, Jingyuan Cui. Social Media Links: WeChat Official Account: iGEMxJLU; Bilibili: iGEM_JLU; (check out the last few seconds of our PV and you could find more QRcodes)https://static.igem.org/peertube/streaming-playlists/hls/0eae4a80-0177-4233-8ddb-def1b38405cf/97551c15-73ae-4517-badf-b3bb98b0981f-master.m3u8https://video.igem.org/videos/embed/2P9qWu9yNSChZYeyyQTuug1000532020-09-22T14:15:38.184ZAsiaOpenChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/iW7RqqXLiJYbWDccQyWVZhhttps://video.igem.org/lazy-static/thumbnails/27462b2e-4bf6-40e9-b013-e9465d7b049d.jpgUTTyler: Using Cellular and Photonics Technologies to Build a Programmable... (2020) - Project Pr...Abstract: Detection of infectious diseases is usually time-consuming and requires sophisticated laboratory settings. In this project, we propose an idea that may lead to a device that provide a quick, convenient, and home-based method for monitoring various infections. This device is expected to facilitate performing diagnosis on a broad population in a daily basis, which can reduce the spread of diseases. Wiki Link: https://2020.igem.org/Team:UTTyler Credits: the whole UTTyler team, especially Prabhat Kattel (you can see him in our video!) Other Links (Optional): not available https://static.igem.org/peertube/streaming-playlists/hls/9139be59-4ee5-4a02-ac23-2fbd199f1b1e/dacbb3c1-d0b3-4786-8e8c-e056ce80ce38-master.m3u8https://video.igem.org/videos/embed/iW7RqqXLiJYbWDccQyWVZh1040822020-09-22T16:45:41.986ZNorthAmericaUnitedStatesDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/3b6sgnPKTwBCpoge7JRsTQhttps://video.igem.org/lazy-static/thumbnails/ccc24946-8980-42fa-80d2-0be55f682f24.jpgTechnion-Israel: ACT. (2020) - Project Promotion [English]Abstract: We are proud to present the Israeli Technion team's promotion video! Let us take you through the journey of the world pandemic caused by COVID-19. The impact it has left on the world since the outbreak, and the unclear future drove our team to find a solution to lower the virus's infectivity and help the healthcare systems. Meet our team and see the work we are doing in order to complete that vision. Wiki link: https://2020.igem.org/Team:Technion-Israel Credits: English narration- Hillah Hassan Animation- Elona Danishevsky Filming and Photography equipment- Jorge Enrique Yung Chinse subtitle- Frank Yen Other links: Facebook: https://www.facebook.com/igemtechnion Twitter: https://twitter.com/technion2020 Instagram: https://www.instagram.com/igem_technion/https://static.igem.org/peertube/streaming-playlists/hls/119b1351-1817-4893-9098-562628a72c2e/e71d8d73-687c-4940-917d-ee71493cbfdf-master.m3u8https://video.igem.org/videos/embed/3b6sgnPKTwBCpoge7JRsTQ120011072020-09-23T14:20:50.080ZAsiaIsraelNewApplicationYES2020 Project PromotionsNOhttps://video.igem.org/w/vCR4pYtnYPrtUfFLqoe6tVhttps://video.igem.org/lazy-static/thumbnails/1eef41ba-8d2d-4b47-86b8-0ab5e40053a6.jpgiGEM Global Meetup - Welcome Ceremony (Around The World Tour)iGEM 2020 Global Meetup (August 20-22): https://2020.igem.org/Teams/Global_Meetup The ambassadors took us on a virtual iGEM World Tour. We heard from 9 regions reporting on what iGEM, SynBio and 2020 is like in their part of the world. They were joined by more than 200 current and past iGEMers telling stories from Latin America, to Europe, Africa, India, China, United Kingdom, North America, Australia, and Japan. Hosted by: Nemanja Stijepovic (Director of Video & Technology at iGEM HQ) & iGEM Ambassadors Blog post: https://blog.igem.org/blog/2020/9/8/celebrating-another-first-the-igem-2020-global-meet-uphttps://static.igem.org/peertube/streaming-playlists/hls/effe07cb-9cba-4996-96b0-dc162675e8ef/ff726cf7-fef8-4208-9fcc-2967b2850355-master.m3u8https://video.igem.org/videos/embed/vCR4pYtnYPrtUfFLqoe6tV25910722020-09-22T18:40:38.172ZsynbioYES2020 Global MeetupNOhttps://video.igem.org/w/gKCrBtBTFpRFH3bxuEfTpHhttps://video.igem.org/lazy-static/thumbnails/15fd3207-3640-4220-8834-7870993122e9.jpgKCL_UK: Renervate (2020) - Project Promotion [English]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/7f90851a-3d85-4feb-9ce0-1b0e5d87aa5b/49836522-8f26-4fea-92f4-d0a4f1f35035-master.m3u8https://video.igem.org/videos/embed/gKCrBtBTFpRFH3bxuEfTpH11805972020-09-22T18:58:21.706ZEuropeUnitedKingdomTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/waiPYYzh4HnkZt9tEoQF79https://video.igem.org/lazy-static/thumbnails/39802aef-efea-47aa-bf17-a33bb9784b6c.jpgLambert_GA: AgroSENSE (2020) - Project Promotion [English]Throughout the United States, 23.1 million people lack access to fresh and affordable produce. Lambert iGEM presents Agrosense, a community-based aquaponics system that integrates synthetic biology. By engineering nutrient biosensors, we aim to reduce maintenance costs for aquaponics systems. With a focus on empowering communities, we plan to partner with schools and organizations to educate next-generation agriculture technology leaders on the intersection of aquaponics, synthetic biology, and engineering. https://2020.igem.org/Team:Lambert_GA Credits: Director / Producer: Kathy Ye Editor: Payton Gray, Kathy Ye Narrator: Sri Pinnamaredy Camera Operators: Kathy Ye, Janet Standeven, Saif Khan, Zoya Mir Brainstorming Committee: Kathy Ye, Zoya Mir, Neha Lingam, Sri Pinnamaredy General Video Committee: Aditya Prabhaker, Faith Johnson, Melanie Kim, Neha Lingam, Saif Khan, Zoya Mir, Sri Pinnamaredy, Kathy Ye Instagram: @lambertigem Facebook: @lambert.high.igem Twitter: @lamberths_iGEMhttps://static.igem.org/peertube/streaming-playlists/hls/f43ed716-3089-4c22-b363-9bd95017a440/f85172c4-ce87-40b3-ad6c-db8e9bb83b67-master.m3u8https://video.igem.org/videos/embed/waiPYYzh4HnkZt9tEoQF791160972020-09-22T20:55:03.087ZHighSchoolUnitedStatesNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/cj8nXiuNiuHbURNgLWpyxWhttps://video.igem.org/lazy-static/thumbnails/2d40e4f0-903b-474b-a7f2-079a1f71826a.jpgShanghai_SFLS_SPBS: Biosynthesis of natural hair dye (2020) - Project Promotion [English]Abstract: Current hair dye products pose significant problems. Most synthetic dyes are strong allergens and harmful to the hair. Despite increasing attention to natural dyes, they are insufficient and hard to extract. We propose biosynthesis of natural dyes using bacteria. We produced melanin, indigo, dopaxanthin, and indoline-betacyanin. With the pigments representing key black, cyan, magenta, and yellow, we can theoretically produce any color by mixing the pigments. Welcome to the hair dye cartridge presented by Shanghai_SFLS_SPBS. Wiki Link: https://2020.igem.org/Team:Shanghai_SFLS_SPBS Credits: Presenters (in order of appearance): Ivy Ding, Olivia Feng, Monique Wang, Oscar Hang, & Crystal Liu Edited by Crystal Liu Music: www.bensound.com WeChat public account: iGEM2020Modu Instagram @igem_2020_modu Email: igem_modu@126.comhttps://static.igem.org/peertube/streaming-playlists/hls/5b9c75d5-60ae-4491-ac82-783f501407f4/bb4429ee-2c8e-461d-8df8-f4fb22165812-master.m3u8https://video.igem.org/videos/embed/cj8nXiuNiuHbURNgLWpyxW1190412020-09-22T23:19:51.572ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/4LRZSyVUn6uW3XYUnkpafshttps://video.igem.org/lazy-static/thumbnails/7f84f7cf-acbe-4fda-b42a-eedf56c41398.jpgGaston_Day_School: Killing Kudzu (2020) - Project Promotion [English]Abstract: Kudzu is an invasive plant that plagues the southeastern United States. To rid the invasive plant, the Gaston Day School iGEM 2020 team is using Phytotoxin Phaseolotoxin, a safer alternative to other toxins with no harm to humans, animals, crops, or the environment. In eradicating Kudzu, the biodiversity of natives plants will be able to thrive again in the areas that this invasive species took over. Wiki Link: http://2020.igem.org/Team:Gaston_Day_School Credits: Video Production by Kristine Huynh, Brooke Dillingham, and Kate Klinger Other links: https://www.instagram.com/gastondayigem/ https://static.igem.org/peertube/streaming-playlists/hls/1e8ef43f-7426-42e2-856c-57a0c3ebb572/b948abe7-e1ce-4f20-a968-bdd05b1f8d51-master.m3u8https://video.igem.org/videos/embed/4LRZSyVUn6uW3XYUnkpafs1200392020-09-23T01:06:32.387ZUnitedStatesNorthAmericaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/rtQ6tK4XNaWcZaRRjjacbjhttps://video.igem.org/lazy-static/thumbnails/f9f9b361-08f5-47d3-8053-5491e11bcd70.jpgHong_Kong_CityU: Rational approach to plastic degradation (2020) - Project Promotion [English]Abstract Hello World! We are the HK CityU iGEM team "Plastilicious"! We have a small but united team with nine lovely members. Our team aims to carry out protein engineering using a site-directed mutagenesis approach to create a multi plastic-degrading bug. This technology can facilitate the biodegradation of plastic wastes and help to save the world from environmental plastic pollution. Wiki link https://2020.igem.org/Team:Hong_Kong_CityU Credits Team members : Enoch Cheung, Delta Chan, Ellis So, David Ahn, Jason Fung, Ming Wan, Annissa Fung, Harrison Zhang and Niharika Pent Cast : Enoch Cheung, Delta Chan, Ellis So, David Ahn, Jason Fung, Annissa Fung and Ming Wan Director of photographer : Enoch Cheung Editor : Enoch Cheung Venue : City university of Hong Kong Special thanks : Dr. Richard Kong, Dr. Ball Lai, Dr. Tse and Mr. Jeff Ho Video footage : pexels.com Background music : bensound.com Social media Instagram: https://www.instagram.com E-mail: cityuigem2020@gmail.com https://static.igem.org/peertube/streaming-playlists/hls/ce573003-467b-4cd0-ad12-60691e37226a/9be4e66e-b748-4f18-96d4-9ff6c9949e4d-master.m3u8https://video.igem.org/videos/embed/rtQ6tK4XNaWcZaRRjjacbj1190552020-09-23T08:20:12.362ZAsiaHongKongEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/pSow1KydbaAsuoP1CKfDZohttps://video.igem.org/lazy-static/thumbnails/916a158c-fd5d-4cb2-ac33-7166c31e2c63.jpgXH-China: Keratinase Facial Exfoliator (2020) - Project Promotion [English]Applying synthetic biology, our team addressed several skin concerns by devising a gentle skincare product. Compared to the traditional way: either chemical peeling or physical rub, we applied enzyme keratinase to safely exfoliate the skin. Our products, based on thorough research and empirical applications, guarantee the gentleness, exfoliating excess cuticles without destroying the skin barrier. A series of skin issues, like dryness, itching, and redness, will be, therefore, greatly relieved. Wiki Link:https://2020.igem.org/Team:XH-China https://static.igem.org/peertube/streaming-playlists/hls/c14b412a-de38-4f83-8b5e-9093323a8114/510f52b4-21b5-4bc1-a398-85c24b31358e-master.m3u8https://video.igem.org/videos/embed/pSow1KydbaAsuoP1CKfDZo1200402020-09-23T09:52:08.509ZAsiaHighSchoolChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/9YbLUkEfZHR1DVmK6x1eS1https://video.igem.org/lazy-static/thumbnails/a3ef7f88-8bd0-42eb-b6f9-e4453fc886a3.jpgQdai: P.coli (2020) - Project Promotion [English]Abstract: While phosphorus is one of the most important resources for agricultural food production, it becomes a great driver of water pollution when it enters the environment. Further, it is expected to be depleted in 70 years so recycling of it is a big issue. We looked into phosphorus metabolism of bacteria and hope to enhance its capacity of phosphorus accumulation by using synthetic biology approach. We believe our project contributes to sustainability. Wiki Link: https://2020.igem.org/Team:Qdai Credits: *Presenter* Haruki Koyama Jiaxin Wu Hiromu Inoue Shino Suda *Editor* Haruki Koyama Kenta Takemori *Music* "Hide-and-seek" by zukisuzuki BGM https://zukisuzukibgm.com/hide-and-seek/ *Photos* by photoAC https://www.photo-ac.com/ Other links (Optional): Twitter→https://twitter.com/igemqdaihttps://static.igem.org/peertube/streaming-playlists/hls/48a16675-10bf-4dee-8a3b-d0c65ddac4f8/76dad298-c1fa-4b85-bb59-39e78cd1e8cb-master.m3u8https://video.igem.org/videos/embed/9YbLUkEfZHR1DVmK6x1eS11200812020-09-25T15:12:43.053ZJapanAsiaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/aWL89bRFwz3r2Gnfua9WhNhttps://video.igem.org/lazy-static/thumbnails/876b6eba-17cd-4f1a-a3ed-a9650cc84415.jpgJACOXH_China: Earthworm Yakult (2020) - Project Promotion [English]Abstract:This video shows in the form of animation the current situation and hazards of mercury pollution, and explains how our project is supposed to deal with the problem with the help of earthworms carrying engineering bacterias. To make the video more comprehensible and interesting, all the complex concepts have been visualized as simple cartoon characters. Watch the video to learn more. Wiki Link:**https://2020.igem.org/Team:JACOXH_China** Credits:*Animation design：Bing qing Fu Animation production：Yan jun Wu/Wen qi Huang* Other links: https://b23.tv/CfNfHyhttps://static.igem.org/peertube/streaming-playlists/hls/50879a75-db35-4296-80e0-118b52efa7b6/ad3fa635-5ca4-4359-bedb-a8e180ccb634-master.m3u8https://video.igem.org/videos/embed/aWL89bRFwz3r2Gnfua9WhN1200322020-09-23T13:36:03.277ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/jmJS9Bz8szYhPtQae7Vvnvhttps://video.igem.org/lazy-static/thumbnails/3bf0916c-e325-4f25-a5b6-0ef9ff711434.jpgBUCT-China: Biodegradation of plastic and biosynthesis of new polymers (2020) - Project Promotion...Abstracts: Plastic waste can cause catastrophe to the earth environment. It is reported in 2018 that microplastics has contaminated the Mariana Trench. Our team is committed to using synthetic biology methods to reuse the plastic waste in the ocean. In last year’s study, we observed a strain Microbulbifer hydrolyticus, which can degrade PE and PS. This year, we made some improvements and conducted further exploration work. Wiki Link: https://2020.igem.org/Team:BUCT-China Credits: Supervisior：Luo Liu, Kaili Nie; Inspiration:Jia Kenan, Xiao xiao, Sijia Xiao, Yushuo Li, Haiwei Quan, Shibo Hou, Wenjing Li, Shuming Jin, Ran Zhao, Aiding wei, Zehui Han, Min Li, Yuxin Ning; Art Designer:Yang Zhaoqi, Yuan Zhi Chen, Hao Qin; Music:Shan Qi; Special Thanks to:KEYSTONE-Jane Liu; Editor:Langrun Wang.https://static.igem.org/peertube/streaming-playlists/hls/94a9c99c-a1a7-4638-8a8f-f419529d54fb/39324564-8039-4799-8d29-5043dbae195b-master.m3u8https://video.igem.org/videos/embed/jmJS9Bz8szYhPtQae7Vvnv11601632020-09-23T13:24:38.751ZEnvironmentChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/9VS4DrCKtyf13gG66BFMpZhttps://video.igem.org/lazy-static/thumbnails/122e4b4b-81d4-46f6-a264-08db6cb6c42b.jpgKorea-SIS: Biosensor to Reduce Post-Harvest Losses (2020) - Project Promotion [English]Abstract: In this video, team SIS-Korea proceeds to explain the severity of post harvest rice losses in the country of Sri Lanka. Proposing a viable solution using mass-producible biosensors, team SIS-Korea models a practical way of detecting fungi growth in Sri Lankan storage facilities. Their journey to save race is documented in this video. Wiki Link: https://2020.igem.org/Team:Korea-SIS Credits: Korea-SIS members: Jinha Kim, Clara Yim, Sarah Yim, Taejoo Lee, Jeongwoo Cho, Ian Kim, Hanjoo Lee, Myungjin Shin // Instructors: Semyung Shin and Jae Eun Kil // Special thanks to: Jiin Han, Amali Thanthrige, Anna Kathleen, Sherun Sivanesan Other Links: instagram.com/koreasisigem https://www.youtube.com/channel/UCZu9LgLQo79tEsTpc5tdqPQ koreasisigem2020@gmail.comhttps://static.igem.org/peertube/streaming-playlists/hls/484e61a4-bf30-4116-aae3-8a634217bc6b/1f7ca807-bcae-4ce1-94b6-2a7a6591afad-master.m3u8https://video.igem.org/videos/embed/9VS4DrCKtyf13gG66BFMpZ1190792020-09-23T13:46:37.736ZKoreaRepublicOfHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/rkNmtsgFLKdfnXUnqkdACLhttps://video.igem.org/lazy-static/thumbnails/d73e2399-3f27-422a-b9fd-144648956cec.jpgSDU-Denmark: PROSTATUS (2020) - Project Promotion [English]The iGEM 2020 team of SDU-Denmark is proud to present: PROSTATUS – a non-invasive, diagnostic tool designed to detect 3 biomarkers for aggressive prostate cancer present in urine. This test aims to not only replace the current PSA tests known for providing numerous false positives, but also prevent users from having to experience the uncomfortable follow-up procedures. PROSTATUS will address this problem through utilization of the CRISPR-Cas13 mediated system working in a sample of urine. https://2020.igem.org/Team:SDU-Denmark Credits to Kristine de Leon, Thomas Hegelund, Flora Fuglsang, and Gyula Kimpan. Some images were taken from Biorender.com. https://www.facebook.com/igem.sdu https://www.instagram.com/igem.sdu/ https://static.igem.org/peertube/streaming-playlists/hls/cd382a07-4b2a-4336-8f3e-f4068693066c/bbe6a51d-b996-4fee-8b8b-15f1cae312ec-master.m3u8https://video.igem.org/videos/embed/rkNmtsgFLKdfnXUnqkdACL12002112020-09-24T13:51:43.604ZDenmarkDiagnosticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/pxYK2VuiWcm23fJLauqxvJhttps://video.igem.org/lazy-static/thumbnails/c95c3d4d-5ed7-43bb-a1da-39d2f16c69e3.jpgKorea-SIS: Biosensor to Reduce Post-Harvest Losses (2020) - Project Promotion [Korean]Abstract: In this video, team SIS-Korea proceeds to explain the severity of post harvest rice losses in the country of Sri Lanka. Proposing a viable solution using mass-producible biosensors, team SIS-Korea models a practical way of detecting fungi growth in Sri Lankan storage facilities. Their journey to save race is documented in this video. Wiki Link: https://2020.igem.org/Team:Korea-SIS Credits: Korea-SIS members: Jinha Kim, Clara Yim, Sarah Yim, Taejoo Lee, Jeongwoo Cho, Ian Kim, Hanjoo Lee, Myungjin Shin // Instructors: Semyung Shin and Jae Eun Kil // Special thanks to: Jiin Han, Amali Thanthrige, Anna Kathleen, Sherun Sivanesan Other Links: instagram.com/koreasisigem https://www.youtube.com/channel/UCZu9LgLQo79tEsTpc5tdqPQ koreasisigem2020@gmail.comhttps://static.igem.org/peertube/streaming-playlists/hls/beb936ea-bd19-4040-b86b-264df448a438/6adac0b7-634f-43e6-bd82-3b0399b7e382-master.m3u8https://video.igem.org/videos/embed/pxYK2VuiWcm23fJLauqxvJ1200252020-09-23T14:00:59.881ZAsiaKoreaRepublicOfHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/rj4ruCzaWabCJ4GeCqAhpVhttps://video.igem.org/lazy-static/thumbnails/db735475-d8b9-4f70-aa9f-c58a9fa42108.jpgHK_SSC: Production of PdRp-CBD complex for recovery of Pd from Pd (II) ions (2020) - Project Prom...In this project, twenty five palladium(II) reducing peptides (PdRp) are modified from a selection of known palladium binding peptides. The PdRp are fused to a cellulose binding domain 3 (CBD 3) derived from Clostridium thermocellum which acts as an affinity tag. Peptide-Palladium interactions are determined by computational methods of Molecular Dynamics Simulation. Downstream analysis and further experiments will be performed to determine the efficiency and performance of the PdRp with potassium Tetrachloropalladate. https://2020.igem.org/Team:HK_SSC Credits: Huang Helene Heling - Voice Over & Script Writer, Leung Tsz Ching, Mok Yu Yiu, Zhang Hiu Lo - Illustrations, Choi Justin Yuet Hei - Video Editing, Young Hong Yui, Poon Curtis Long Yiu - Producer, Leung Tung Yan Angela - Script Writer, Chung Tsun Ho Anson, Wong Chun Hin - Advisory, Wong Hoi Ling - Logo Design, https://www.instagram.com/ssc_igem/https://static.igem.org/peertube/streaming-playlists/hls/ccf9f95b-a8d0-4930-986c-c4a50c2d013b/4548fa8f-6c8b-4727-a52d-eef3e7fb65a4-master.m3u8https://video.igem.org/videos/embed/rj4ruCzaWabCJ4GeCqAhpV11501102020-09-23T16:56:38.165ZAsiaHongKongHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/xiwB6xpuZ9g3agQoHojg3whttps://video.igem.org/lazy-static/thumbnails/62086ccc-38ff-4424-944d-e4c3e291ddf4.jpgHainan_China: CHLORIS (2020) - Project Promotion [English]This video introduces the 2020 iGEM project of Hainan_China. This year, we focus on coral bleaching and want to develop a probiotic bacteria which provides a potential solution. We first cultivated zooxanthellae in vitro and find out the nutrient elements beneficial to the health of zooxanthellae and polyps. After that we developed a genetically engineered probiotic bacteria to help the reinforcement of the symbiotic relationship between coral polyps and zooxanthellae. Wiki Link: https://2020.igem.org/Team:Hainan_China Credits: Special thanks to Sanya Coral Reef Ecological Research Institute for providing the shooting location Dawang for providing animation and editing support Hao Zhou (CSU_China) for providing subtitling assistance Scriptwriter Yunpeng Zhao Chinese Narration Writers Yunpeng Zhao,Yicheng Lou English Narration Writers Yicheng Lou,Siyu Yang,Xinyue Fan Actors All members of Hainan_China Siyu Yang, Chenyu Zhu, Peike Guo, Yunpeng Zhao, Yicheng Lou, Xinyue Fan,Boran Wang, Zhiyi Wang, Weile Su, Shuwen Hou, Junkai Wang, Yumeng Li, Zhongrui Li, Xiyu Zhang. Dubbed by Siyu Yang, Chenyu Zhu, Peike Guo, Yunpeng Zhao, Yicheng Lou, Xinyue Fan, Boran Wang, Zhiyi Wang, Weile Su, Shuwen Hou. Subtitled by Junkai Wang, Siyu Yang, Weile Su Editor Xinyue Fan Our Social Media Account:https://mp.weixin.qq.com/mp/profile_ext?action=home&__biz=MzIyMTE0OTI0Mg==&scene=124#wechat_redirect https://static.igem.org/peertube/streaming-playlists/hls/fd7dcdb9-61ae-4463-9429-2c006bed0cfe/f3efc834-db4d-4465-b47a-e9e30ac25a6c-master.m3u8https://video.igem.org/videos/embed/xiwB6xpuZ9g3agQoHojg3w11802742020-09-23T15:49:49.418ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/sDF77M4h9gMZUjcdJRKdGQhttps://video.igem.org/lazy-static/thumbnails/ca2ee7d1-0427-461f-a2fe-5d723274cc22.jpgiBowu-China: Sureloc (2020) - Project Promotion [English]Abstract: Non-small cell lung carcinoma (NSCLC) is a clinically common type of epithelial cancer, yet is not sensitive to chemotherapy or radiotherapy. To address this, team iBowu-China created a magnetic protein crystal encapsulated liposome delivery system with the surface attachment of GE11 to provide accuracy. Following the delivery to lung cancer cells, the liposomes would heat selective areas under a localized alternating magnetic field through hyperthermia. Wiki Link: https://2020.igem.org/Team:iBowu-China Credits: Script Writing: English Script Writer – Virginia Du & Lucas Ji English Script Editor – Mika Yokota Script Translations: Chinese – Virginia Du French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Narrations: English – Mika Yokota Chinese – Emily Wei French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Video Production: Animation Design – Angela Zheng & Angela Zhang Animation – Aaron Xia & Virginia Du Video Editor – Virginia Du Social Media: Instagram: @ibowuchina2020 Facebook: iBowu China Twitter: @IbowuC Ximalaya Broadcast: iBowu_China2020 Outlook Email: ibowu-China2020@outlook.com https://static.igem.org/peertube/streaming-playlists/hls/d7d03968-47a2-4778-9d38-0c6f857acc78/5268f2dc-bf88-4c4c-b454-c86c90d4d78a-master.m3u8https://video.igem.org/videos/embed/sDF77M4h9gMZUjcdJRKdGQ1130262020-09-23T15:52:48.947ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/38thaMmnQjEMoeUr3ZFdWShttps://video.igem.org/lazy-static/thumbnails/e0f180e9-f4f3-492a-b195-72bf2479a17a.jpgiBowu-China: Sureloc (2020) - Project Promotion [Chinese]Abstract: Non-small cell lung carcinoma (NSCLC) is a clinically common type of epithelial cancer, yet is not sensitive to chemotherapy or radiotherapy. To address this, team iBowu-China created a magnetic protein crystal encapsulated liposome delivery system with the surface attachment of GE11 to provide accuracy. Following the delivery to lung cancer cells, the liposomes would heat selective areas under a localized alternating magnetic field through hyperthermia. Wiki Link: https://2020.igem.org/Team:iBowu-China Credits: Script Writing: English Script Writer – Virginia Du & Lucas Ji English Script Editor – Mika Yokota Script Translations: Chinese – Virginia Du French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Narrations: English – Mika Yokota Chinese – Emily Wei French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Video Production: Animation Design – Angela Zheng & Angela Zhang Animation – Aaron Xia & Virginia Du Video Editor – Virginia Du Social Media: Instagram: @ibowuchina2020 Facebook: iBowu China Twitter: @IbowuC Ximalaya Broadcast: iBowu_China2020 Outlook Email: ibowu-China2020@outlook.com https://static.igem.org/peertube/streaming-playlists/hls/113d4b7b-3d4b-403b-aea9-d657e813e546/c0a3d8d4-bb02-4899-ace1-6d623b80dfe5-master.m3u8https://video.igem.org/videos/embed/38thaMmnQjEMoeUr3ZFdWS111062020-09-23T16:00:36.293ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/gk6Z76vn1xoZZquZHDqRJXhttps://video.igem.org/lazy-static/thumbnails/cd568d7f-f128-4034-af28-d31811881d5a.jpgiBowu-China: Sureloc (2020) - Project Promotion [Dutch]Abstract: Non-small cell lung carcinoma (NSCLC) is a clinically common type of epithelial cancer, yet is not sensitive to chemotherapy or radiotherapy. To address this, team iBowu-China created a magnetic protein crystal encapsulated liposome delivery system with the surface attachment of GE11 to provide accuracy. Following the delivery to lung cancer cells, the liposomes would heat selective areas under a localized alternating magnetic field through hyperthermia. Wiki Link: https://2020.igem.org/Team:iBowu-China Credits: Script Writing: English Script Writer – Virginia Du & Lucas Ji English Script Editor – Mika Yokota Script Translations: Chinese – Virginia Du French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Narrations: English – Mika Yokota Chinese – Emily Wei French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Video Production: Animation Design – Angela Zheng & Angela Zhang Animation – Aaron Xia & Virginia Du Video Editor – Virginia Du Social Media: Instagram: @ibowuchina2020 Facebook: iBowu China Twitter: @IbowuC Ximalaya Broadcast: iBowu_China2020 Outlook Email: ibowu-China2020@outlook.com https://static.igem.org/peertube/streaming-playlists/hls/7c23e64f-9eba-4919-9065-d0a80d56ab8f/e6a2aa57-c584-4a30-835f-0c13aad67671-master.m3u8https://video.igem.org/videos/embed/gk6Z76vn1xoZZquZHDqRJX111022020-09-23T16:04:49.588ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/hJt1LzoKhREpqeLAHe6CChhttps://video.igem.org/lazy-static/thumbnails/44938214-2ab7-499e-bde2-e3d66cc44470.jpgiBowu-China: Sureloc (2020) - Project Promotion [French]Abstract: Non-small cell lung carcinoma (NSCLC) is a clinically common type of epithelial cancer, yet is not sensitive to chemotherapy or radiotherapy. To address this, team iBowu-China created a magnetic protein crystal encapsulated liposome delivery system with the surface attachment of GE11 to provide accuracy. Following the delivery to lung cancer cells, the liposomes would heat selective areas under a localized alternating magnetic field through hyperthermia. Wiki Link: https://2020.igem.org/Team:iBowu-China Credits: Script Writing: English Script Writer – Virginia Du & Lucas Ji English Script Editor – Mika Yokota Script Translations: Chinese – Virginia Du French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Narrations: English – Mika Yokota Chinese – Emily Wei French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Video Production: Animation Design – Angela Zheng & Angela Zhang Animation – Aaron Xia & Virginia Du Video Editor – Virginia Du Social Media: Instagram: @ibowuchina2020 Facebook: iBowu China Twitter: @IbowuC Ximalaya Broadcast: iBowu_China2020 Outlook Email: ibowu-China2020@outlook.com https://static.igem.org/peertube/streaming-playlists/hls/87801aba-6cf3-4b67-93b5-9cc9b9f9a000/1b8c9c63-1ab2-4bb6-881c-7c9eecb8f5cc-master.m3u8https://video.igem.org/videos/embed/hJt1LzoKhREpqeLAHe6CCh103062020-09-23T16:09:23.806ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/oqSuxiTdmgS3qeAzAFradthttps://video.igem.org/lazy-static/thumbnails/4fcd0daf-a7eb-4f3e-8922-ac973beb988f.jpgiBowu-China: Sureloc (2020) - Project Promotion [German]Abstract: Non-small cell lung carcinoma (NSCLC) is a clinically common type of epithelial cancer, yet is not sensitive to chemotherapy or radiotherapy. To address this, team iBowu-China created a magnetic protein crystal encapsulated liposome delivery system with the surface attachment of GE11 to provide accuracy. Following the delivery to lung cancer cells, the liposomes would heat selective areas under a localized alternating magnetic field through hyperthermia. Wiki Link: https://2020.igem.org/Team:iBowu-China Credits: Script Writing: English Script Writer – Virginia Du & Lucas Ji English Script Editor – Mika Yokota Script Translations: Chinese – Virginia Du French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Narrations: English – Mika Yokota Chinese – Emily Wei French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Video Production: Animation Design – Angela Zheng & Angela Zhang Animation – Aaron Xia & Virginia Du Video Editor – Virginia Du Social Media: Instagram: @ibowuchina2020 Facebook: iBowu China Twitter: @IbowuC Ximalaya Broadcast: iBowu_China2020 Outlook Email: ibowu-China2020@outlook.com https://static.igem.org/peertube/streaming-playlists/hls/b5a20491-35a5-460a-b176-e468e6d69bef/14ed99dc-f420-4f38-a3d8-0c6ba0ce3bcf-master.m3u8https://video.igem.org/videos/embed/oqSuxiTdmgS3qeAzAFradt119072020-09-23T16:13:38.182ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/gPdEVNmkJUzFrcquAahTA6https://video.igem.org/lazy-static/thumbnails/a711b81d-e6ef-470b-bc45-272d07a086d0.jpgiBowu-China: Sureloc (2020) - Project Promotion [Japanese]Abstract: Non-small cell lung carcinoma (NSCLC) is a clinically common type of epithelial cancer, yet is not sensitive to chemotherapy or radiotherapy. To address this, team iBowu-China created a magnetic protein crystal encapsulated liposome delivery system with the surface attachment of GE11 to provide accuracy. Following the delivery to lung cancer cells, the liposomes would heat selective areas under a localized alternating magnetic field through hyperthermia. Wiki Link: https://2020.igem.org/Team:iBowu-China Credits: Script Writing: English Script Writer – Virginia Du & Lucas Ji English Script Editor – Mika Yokota Script Translations: Chinese – Virginia Du French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Narrations: English – Mika Yokota Chinese – Emily Wei French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Video Production: Animation Design – Angela Zheng & Angela Zhang Animation – Aaron Xia & Virginia Du Video Editor – Virginia Du Social Media: Instagram: @ibowuchina2020 Facebook: iBowu China Twitter: @IbowuC Ximalaya Broadcast: iBowu_China2020 Outlook Email: ibowu-China2020@outlook.com https://static.igem.org/peertube/streaming-playlists/hls/8010d891-ab41-4e4b-bbf1-62d3e77ce135/ee4f3c7b-e00b-4384-9419-db9f2a90cc9a-master.m3u8https://video.igem.org/videos/embed/gPdEVNmkJUzFrcquAahTA6115092020-09-23T16:16:40.530ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/iTFH5pZvyvEkt3PyNBhALGhttps://video.igem.org/lazy-static/thumbnails/d3c5442c-30dc-4609-b890-b849f4478592.jpgiBowu-China: Sureloc (2020) - Project Promotion [Korean]Abstract: Non-small cell lung carcinoma (NSCLC) is a clinically common type of epithelial cancer, yet is not sensitive to chemotherapy or radiotherapy. To address this, team iBowu-China created a magnetic protein crystal encapsulated liposome delivery system with the surface attachment of GE11 to provide accuracy. Following the delivery to lung cancer cells, the liposomes would heat selective areas under a localized alternating magnetic field through hyperthermia. Wiki Link: https://2020.igem.org/Team:iBowu-China Credits: Script Writing: English Script Writer – Virginia Du & Lucas Ji English Script Editor – Mika Yokota Script Translations: Chinese – Virginia Du French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Narrations: English – Mika Yokota Chinese – Emily Wei French – Angela Zheng Japanese – Kaei Yokota German – MSP_iGEM Dutch – MSP_iGEM Korean – Jinseo Park Video Production: Animation Design – Angela Zheng & Angela Zhang Animation – Aaron Xia & Virginia Du Video Editor – Virginia Du Social Media: Instagram: @ibowuchina2020 Facebook: iBowu China Twitter: @IbowuC Ximalaya Broadcast: iBowu_China2020 Outlook Email: ibowu-China2020@outlook.com https://static.igem.org/peertube/streaming-playlists/hls/90e2c2b2-ef13-4642-ab4d-19f5dc2f98d8/30d8c5f9-d3cf-4d1b-b857-54ab793b3cec-master.m3u8https://video.igem.org/videos/embed/iTFH5pZvyvEkt3PyNBhALG1100102020-09-23T16:19:08.612ZAsiaHighSchoolChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/vKaKnNe3Gxnu6baPvRAnFChttps://video.igem.org/lazy-static/thumbnails/a533cd03-a577-4400-b3b4-ab47fc5ed1a3.jpgTechnion-Israel: ACT. (2020) - Project Promotion [Chinese]Abstract: We are proud to present the Israeli Technion team's promotion video! Let us take you through the journey of the world pandemic caused by COVID-19. The impact it has left on the world since the outbreak, and the unclear future drove our team to find a solution to lower the virus's infectivity and help the healthcare systems. Meet our team and see the work we are doing in order to complete that vision. Wiki link: https://2020.igem.org/Team:Technion-Israel Credits: English narration- Hillah Hassan Animation- Elona Danishevsky Filming and Photography equipment- Jorge Enrique Yung Chinse subtitle- Frank Yen Other links: Facebook: https://www.facebook.com/igemtechnion Twitter: https://twitter.com/technion2020 Instagram: https://www.instagram.com/igem_technion/https://static.igem.org/peertube/streaming-playlists/hls/f0e002b5-717d-4a3f-933d-7e5d32f561ae/e847ec6b-3611-46b6-9f0b-3738b13301a4-master.m3u8https://video.igem.org/videos/embed/vKaKnNe3Gxnu6baPvRAnFC1200322020-09-24T09:19:07.421ZAsiaIsraelNewApplicationYES2020 Project PromotionsNOhttps://video.igem.org/w/9eV2ukxidNvRJeyNoFser5https://video.igem.org/lazy-static/thumbnails/849d074a-292e-4fab-a2f4-7cc14f2320a4.jpgKCL_UK: Renervate (2020) - Project Promotion [Arabic]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/42ba74de-4c93-42bb-8c92-5508f3927e42/82d8a893-08be-4ab2-8f3d-88099dd81b72-master.m3u8https://video.igem.org/videos/embed/9eV2ukxidNvRJeyNoFser51180142020-09-23T19:23:23.368ZUnitedKingdomTherapeuticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/rVxv8TZe9hJMCX5zmMD3zUhttps://video.igem.org/lazy-static/thumbnails/2d575383-9836-4ef5-9861-d224478df054.jpgKCL_UK: Renervate (2020) - Project Promotion [Bulgarian]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK. Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/d1ee4ce1-d6eb-427a-aee2-493ab42b614e/93daca26-e349-49ff-9ce1-c4e8cd5a6807-master.m3u8https://video.igem.org/videos/embed/rVxv8TZe9hJMCX5zmMD3zU118022020-09-23T19:28:03.453ZUnitedKingdomTherapeuticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/hkL1tVA3X3v9WJidNhsViThttps://video.igem.org/lazy-static/thumbnails/de5987ce-22c0-4482-a520-c4e026fd136d.jpgKCL_UK: Renervate (2020) - Project Promotion [French]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/845478a5-12e4-47dd-8b61-7a2b7d4483d1/43f3cbe6-8f65-4965-aaaf-5149099e9cba-master.m3u8https://video.igem.org/videos/embed/hkL1tVA3X3v9WJidNhsViT118092020-09-23T19:30:43.714ZUnitedKingdomTherapeuticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/jW3vDCZwnYkbdbFob9bKRahttps://video.igem.org/lazy-static/thumbnails/54ce0808-db21-4cdd-adc6-94453f12e58b.jpgKCL_UK: Renervate (2020) - Project Promotion [Italian]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/99503500-38ce-4bb3-bcff-f7a6f6b4cb7f/874caea5-790f-473c-b107-1937044d8cae-master.m3u8https://video.igem.org/videos/embed/jW3vDCZwnYkbdbFob9bKRa118062020-09-23T19:37:35.712ZEuropeTherapeuticsUnitedKingdomYES2020 Project PromotionsNOhttps://video.igem.org/w/3kGRJrkqYu5VVnmWD75nkbhttps://video.igem.org/lazy-static/thumbnails/e6c62c6f-ca41-4926-8aa9-4e440ad46dba.jpgKCL_UK: Renervate (2020) - Project Promotion [Korean]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/12f29697-21e1-4e48-b6e2-d658c67e7dec/e5fe5020-3035-4f0b-bc23-c36844a210dc-master.m3u8https://video.igem.org/videos/embed/3kGRJrkqYu5VVnmWD75nkb118062020-09-23T19:41:02.818ZUnitedKingdomTherapeuticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/uH9XJQzYyNDsPitjx2Jycqhttps://video.igem.org/lazy-static/thumbnails/1414c7c2-65e1-43fe-bcaf-f28c947e801a.jpgKCL_UK: Renervate (2020) - Project Promotion [Chinese]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/e87ee643-8e66-4236-b584-64139b937016/bacad987-037f-4968-aba2-b8058f06acdd-master.m3u8https://video.igem.org/videos/embed/uH9XJQzYyNDsPitjx2Jycq1180142020-09-23T19:47:34.969ZEuropeUnitedKingdomTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/dgBPsuvt9T5GjSQupMkgyBhttps://video.igem.org/lazy-static/thumbnails/dd07f8ec-effd-4b62-be35-5d17cd5d853d.jpgKCL_UK: Renervate (2020) - Project Promotion [Russian]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/635be4ec-65b0-4a55-860b-7cbe9aaa77a7/a10bedc0-4c90-4aa4-886c-a967a22e1edc-master.m3u8https://video.igem.org/videos/embed/dgBPsuvt9T5GjSQupMkgyB118042020-09-23T19:51:47.911ZUnitedKingdomEuropeTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/2UrXH89CRimN3huHRpfdHNhttps://video.igem.org/lazy-static/thumbnails/1bf6ec2e-e09c-4bba-8f77-91bf5f6a823d.jpgKCL_UK: Renervate (2020) - Project Promotion [Spanish]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord need to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/0f6bd03c-bcca-41c9-a040-fb512dcd37a8/1ab2232d-6ec8-4a20-a1d8-8f7a9b4d3ae2-master.m3u8https://video.igem.org/videos/embed/2UrXH89CRimN3huHRpfdHN118062020-09-23T19:54:11.818ZUnitedKingdomEuropeTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/fQRqesdV8h6xQPfgVocARThttps://video.igem.org/lazy-static/thumbnails/61199973-f1c7-4107-9fe4-5d0f8859d463.jpgDTU-Denmark: RESHAPE (2020) - Project Promotion [English]Did you know that mold can make the world a better place? Check out our exciting promotion video, where we present this year’s iGEM project, brought to you by the DTU BioBuilders. We have spent more than 6 months working with Aspergillus niger, trying to optimize the usability of this exact organism through genetic engineering. Wiki Link: https://2020.igem.org/Team:DTU-Denmark Credits: All credits for manuscript and execution goes to the DTU BioBuilders Team. Special thanks to the producers of the video, Outreach-Now for filming, editing and sound. Follow us on Facebook (DTU BioBuilders) or Instagram (@igem_dtubiobuilders).https://static.igem.org/peertube/streaming-playlists/hls/783218d4-be53-4926-999a-a117e0b9c70d/1df3cb1e-9adf-425a-83b7-c1daa8a1878a-master.m3u8https://video.igem.org/videos/embed/fQRqesdV8h6xQPfgVocART11703302020-09-24T07:31:10.068ZDenmarkEuropeManufacturingYES2020 Project PromotionsNOhttps://video.igem.org/w/oqYGRjxG61w5pM58NCbe4Rhttps://video.igem.org/lazy-static/thumbnails/73d06028-1b59-4345-bcdb-577f91669e24.jpgNEFU_China: Bio-optical Landmine Detection (2020) - Project Promotion [English]Abstract: Since the advent of landmines, they not only have brought tens of thousands of casualties to human beings, but also have polluted the environment seriously. This year we designed a bio-optical landmine detection with the knowledge of synthetic biology to assist manual landmine detection and removal, reduce the threat to people’s lives, make the minefields be better used and at the same time make our little contribution to global environmental protection. Wiki Link: https://2020.igem.org/Team:NEFU_China Credits: WRITTEN AND DIRECTED BY : Beifang Zhang PRODUCTION DESIGNER : Yueying Gao PRODUCERS : Beifang Zhang, Xinlu Liu FILM EDITING : Beifang Zhang ANIMATORS : Beifang Zhang, Yueying Gao, Xinlu Liu, Xishan Jin, Ailing Zhong SOUND ENGINEERS : Yi Zheng, Danjie Song SUBTITLE : Zhifu Shang BGM : NewWorld Contect us: nefulqh@126.com https://static.igem.org/peertube/streaming-playlists/hls/b5a5d8a5-8f93-4681-899d-ecf14ada4303/a8c98a1d-ec90-441d-a2a1-401691ab108f-master.m3u8https://video.igem.org/videos/embed/oqYGRjxG61w5pM58NCbe4R11901102020-09-24T04:06:23.334ZNewApplicationChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/aWEzdjAXXSuGdk79QDBzRxhttps://video.igem.org/lazy-static/thumbnails/18636b4e-1e9d-4d11-bf92-10b0155da712.jpgKorea-SIS: Biosensor to Reduce Post-Harvest Losses (2020) - Project Promotion [Sinhala/Tamil]Abstract: In this video, team SIS-Korea proceeds to explain the severity of post harvest rice losses in the country of Sri Lanka. Proposing a viable solution using mass-producible biosensors, team SIS-Korea models a practical way of detecting fungi growth in Sri Lankan storage facilities. Their journey to save race is documented in this video. Wiki Link: https://2020.igem.org/Team:Korea-SIS Credits: Korea-SIS members: Jinha Kim, Clara Yim, Sarah Yim, Taejoo Lee, Jeongwoo Cho, Ian Kim, Hanjoo Lee, Myungjin Shin // Instructors: Semyung Shin and Jae Eun Kil // Special thanks to: Jiin Han, Amali Thanthrige, Anna Kathleen, Sherun Sivanesan Other Links: instagram.com/koreasisigem https://www.youtube.com/channel/UCZu9LgLQo79tEsTpc5tdqPQ koreasisigem2020@gmail.comhttps://static.igem.org/peertube/streaming-playlists/hls/50842ec8-7a0b-4115-a9d9-7aae09e11da5/68939aa6-2696-4da6-8922-deb4f644bbe9-master.m3u8https://video.igem.org/videos/embed/aWEzdjAXXSuGdk79QDBzRx1190132020-09-24T03:23:49.584ZKoreaRepublicOfHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/exb2pyBUpAprvPcc22NQUghttps://video.igem.org/lazy-static/thumbnails/756bd172-4404-44c6-b853-129992b012d5.jpgNanjing-China: PolyP Pro (2020) - Project Promotion [English]There are many problems with synthetic chemical materials, such as the contamination and safety risks in production process. By means of Synthetic Biology, we hope to biosynthesis the inorganic material polyphosphates, which is commonly used in chemistry, with biomolecular proteins in order to obtain a new environmental friendly material, which not only maintains the original function of the biomolecule but also improves its thermal stability. https://2020.igem.org/Team:Nanjing-China Script：XiaoHan Qian/Zhen Chiang/YiXuan Zhang/ZiYang Xv Storyboard/Propping/Photographing/Editing:XiaoHan Qian Dubbing:YiXuan Zhang/Zhen Chianghttps://static.igem.org/peertube/streaming-playlists/hls/6da10980-16dd-4293-8aaa-553f7d2f4db7/bf0323d9-ff40-47aa-ae69-cfbdfe3d2f6e-master.m3u8https://video.igem.org/videos/embed/exb2pyBUpAprvPcc22NQUg1070402020-09-24T03:28:04.170ZAsiaChinaNewApplicationYES2020 Project PromotionsNOhttps://video.igem.org/w/1YxJGqczCxS2FM4akrSLp3https://video.igem.org/lazy-static/thumbnails/8d3d2ab3-0e23-4573-ba57-3143f51e5a87.jpgFCB-UANL: Synbiofoam (2020) - Project Promotion [Spanish/Portuguese]Fluorosurfactants (PFOs) are standard components of firefighting foams but pose an environmental threat. Our goal is to produce an ecofriendly alternative. We propose the use of protein Ranaspumin-2 to substitute PFOs as a foaming agent in firefighting mixtures. Not only will our project aid the environment, but it can reduce production costs of foams, allowing underfunded fire departments to access these tools. https://2020.igem.org/Team:FCB-UANL M. Sc. Heber Miguel Torres Cordero, Daniela Alvarez Robledo, José Alonso Flores Coronado, Alejandro Solis Pacheco, Raúl Acosta Murillo, Samuel Chagas de Assis, Team FCB-UANL, Facultad de Ciencias Biológicas, UANL. Gamoi, David Preisner, Tom Fisk, Magda Ehlers, Daniel, Ruvim Miksanskiy https://www.facebook.com/uanl.igem , https://www.instagram.com/igemuanl/?hl=es-la , https://twitter.com/iGEMUANL https://static.igem.org/peertube/streaming-playlists/hls/07e5358f-5f08-4898-81dd-67edd903e368/b47d225e-5d58-421f-a07d-005b27325d35-master.m3u8https://video.igem.org/videos/embed/1YxJGqczCxS2FM4akrSLp31150352020-09-24T04:10:08.924ZLatinAmericaEnvironmentMexicoYES2020 Project PromotionsNOhttps://video.igem.org/w/1qWAJY19Mna9wL4Fv1ee3Mhttps://video.igem.org/lazy-static/thumbnails/a5d1ea26-6c15-45e5-accf-e283991aa36b.jpgFDR-HB_Peru: Fishing for Cadmium (2020) - Project Promotion [Spanish]Our project addresses the issue of cadmium contamination in fishmeal, we believe that this is an issue worth tackling as it affects the health of millions around the world and our local economy. Furthermore, we also seek to make science more accessible for young students in Peru. https://2020.igem.org/Team:FDR-HB_Peru Creators of Visuals and Sound: Bensound, slidesgo, Voices of Kia Cuba, Thiago Aguirre and Isabella Yoshiyama IG: igem_peruhttps://static.igem.org/peertube/streaming-playlists/hls/037b7f90-59da-4cbc-8abe-f1622f8135dd/c5cb4a36-0251-4ff7-8480-019ffe44fe9d-master.m3u8https://video.igem.org/videos/embed/1qWAJY19Mna9wL4Fv1ee3M1040422020-09-24T03:58:15.074ZPeruHighSchoolLatinAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/pPmApYD2Xj3VzpPAwb3kSuhttps://video.igem.org/lazy-static/thumbnails/8dfc08f5-8deb-4a74-a879-2d18b5f0217a.jpgJNFLS: Bacterial cellulose applied for mask (2020) - Project Promotion [English]Abstract: Now there are more than 200 million nonbiodegradable masks abandoned to the environment every day due to the pandemic novel coronavirus. We are trying to make a new antibacterial and color-changing mask using bacterial cellulose which is biodegradable. And its translucency is very benefit for facial recognition without taking off the mask. Wiki Link: https://2020.igem.org/Team:JNFLS Credits: Playwrite: Yinuo Sha, Shanglin Song Director: Shanglin Song General director: Jiaying Wu Video clip: Yaqi Han Special thanks to photographer: Yaqi Han https://static.igem.org/peertube/streaming-playlists/hls/c0ded663-f843-423d-81ef-828e49831bcc/f4c00284-d9c8-4149-8faf-4107f71ed0e2-master.m3u8https://video.igem.org/videos/embed/pPmApYD2Xj3VzpPAwb3kSu1180392020-09-24T04:30:29.974ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/q4yVWaA1AbZAc7jotLE5xUhttps://video.igem.org/lazy-static/thumbnails/2175df7e-420f-43c0-8923-82cd468d3f88.jpgIISER_Berhampur: FRaPPe (2020) - Project Promotion [English]Abstract: FRaPPe, A FRET-based Ranker for Proteins and Peptides, is a reporter system that aims to validate the efficiency of therapeutics targeting protein-protein interactions. This tool will enable modulation of host-viral PPIs and their quantification via fluorescence readout, offering possibilities for a high-throughput screening system for drug efficiency, by monitoring the interactions in vitro. Using this tool, we will devise an intervention strategy against Dengue, a leading global public health concern. Wiki Link: https://2020.igem.org/Team:IISER_Berhampur Credits: On Screen - Gokul Bhaskaran Camera - Subhasish Halder Narration - Sukanya Chakraborty Animations and Editing - Sayantani Biswas, Vinayak S Resources - www.freepik.com, www.flaticon.com, Youtube Creative Commons: HD Green Screen, Daw Daw Our Team - Chitrak Bhowmik, Deepjyoti Satpathy, Sukanya Chakraborty, Harish Kumar Senapati, Tanishta Bhattacharya, Vinayak S, Gyanaranjan Parida, Sudev Pradhan, Kingkini Roychoudhury, Neehar Verma, Sayantani Biswas, U Abinash Patro, Prachiti Vijay Vithole, Gokul Madhav, Gokul Bhaskaran Follow us on Social Media Instagram: https://www.instagram.com/igem.iiserbpr/ Twitter: https://twitter.com/iGEM_iiserbpr Facebook: https://www.facebook.com/igem.iiserbpr/ Our Google Site: https://sites.google.com/iiserbpr.ac.in/igemiiserberhampur/home Mail us at igem2020@iiserbpr.ac.in https://static.igem.org/peertube/streaming-playlists/hls/c2dada58-dabc-495e-924c-9bd17de59eda/dfa1a709-733f-4ddc-a2f6-9e97cce18881-master.m3u8https://video.igem.org/videos/embed/q4yVWaA1AbZAc7jotLE5xU12001182020-09-24T07:23:27.844ZIndiaFoundationalAdvanceAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/rvpkLUZsvxy4dMGLdUox6Rhttps://video.igem.org/lazy-static/thumbnails/37bca99e-1d2a-4b1e-b486-7674d8e07b1e.jpgWorldshaper-Shanghai: Urinary detection of prostate cancer (2020) - Project Promotion [English]Abstract: The menace of prostate cancer is growing larger every second. The world of cells sends Worldshaper-Shanghai to find a new diagnostic method because of there are some disadvantages in the existing methods. In the process of searching, Worldshaper-Shanghai didn’t halt their footsteps no matter how hard they got. They finally found a way to combine gene detection and visualization of results. Can they save the world? Wiki Link: **https://2020.igem.org/Team:Worldshaper-Shanghai** Credits:  *Consultant: Worldshaper-Shanghai Director : Jun Fu Cinematography : Jack Yu Film Editing：Alex Xu Writer: Wenxin Wu, Hanzhang Liang, Tianze Zhao, Tianyi Huang Script translation: Yixuan Yang, Jiaxin Tan, Tiancheng Liu Property and Wardrobe : Wenxin Wu, Zhiqian Wang, Yishan Mao Actors：Wenxin Wu, Hanzhang Liang, Yishan Mao, Zhiqian Wang Supporting Actors：Jun Fu, Ni Li, Xiangyong Wang, Quan Yu Special Thanks: Shanghai Wings Culture Communicationstion Co.,Ltd.* Other links:  WeChat: gh_473895c07768（WSH合成生物学） Email address: xixi.song@worldshaper.cn; wangmarnie@shphschool.com https://static.igem.org/peertube/streaming-playlists/hls/ce8f6b91-cd82-45db-9200-cb614890fadf/ef49d611-a90f-4723-9c52-30c69fb9067e-master.m3u8https://video.igem.org/videos/embed/rvpkLUZsvxy4dMGLdUox6R1200452020-09-24T07:42:18.951ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/5RpUXFTDNbMe5Z1bxDqtvxhttps://video.igem.org/lazy-static/thumbnails/697e6d6a-e9ff-4991-bf45-08a2c4ed5bfa.jpgSZPT-CHINA: Tooth detector (2020) - Project Promotion [English]Abstract:Detection and treatment of dental caries require a visit to the hospital because of the absence of any detection kits for dental caries. The SZPT-CHINA team has developed a portable detection kit for caries and a chewing gum this year using synthetic biology methods that can treat dental caries. People can determine whether they have caries, and thus this kit will help the prevention and early treatment of this disease. Wiki Link:https://2020.igem.org/Team:SZPT-CHINA Credits:On camera hospital:Shenzhen chronic diease prevention and treatment center On-csreen staff:SZPT-CHINA Team On camera doctor:Director Ruan Shihong, Department of Stomatology, Shenzhen Chronic Disease Prevention Center Dr. Lan, Health Promotion and Behavior Intervention Department, Shenzhen Chronic Disease Prevention Center Technical support:Topsme Contact us: 1188hug@163.comhttps://static.igem.org/peertube/streaming-playlists/hls/274abc81-1ade-43cd-a956-033c1d911a6d/572724d2-0bff-4c3f-aca4-ce2e5a357f32-master.m3u8https://video.igem.org/videos/embed/5RpUXFTDNbMe5Z1bxDqtvx1190362020-09-24T05:29:46.677ZChinaNewApplicationAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/r73acUwNjZkrdy9c8WyYBXhttps://video.igem.org/lazy-static/thumbnails/10e331f0-c35e-4446-954e-25932202ccc6.jpgUC_Davis: Spore_Core (2020) - Project Promotion [English]Abstract: We are developing computational tools to identify potential filamentous fungal transcription factors and their cognate binding sites to expand the available parts list for these organisms. We are using comparative genomic approaches to mine more than 600 fungal genomes for transcription factors associated with BGCs and motif finding algorithms to identify their putative binding sites. This will create a library of transcription factor-binding site pairs that can be functionally characterized in Aspergillus niger. Wiki Link: https://2020.igem.org/Team:UC_Davis Credits: We'd like to thank our advisors Marc Facciotti and Ian Korf for being an immense source of knowledge and support during these challenging times! Other links (Optional): Instagram- https://www.instagram.com/ucdigem/ YouTube- https://www.youtube.com/channel/UCQcX9bqaX6P4_1--ZCXci7Qhttps://static.igem.org/peertube/streaming-playlists/hls/cb4c426c-d291-4112-b47a-7194e7bf4285/faffa5bf-f2cc-4e15-b0f4-e0229ea17b32-master.m3u8https://video.igem.org/videos/embed/r73acUwNjZkrdy9c8WyYBX11901792020-09-25T02:50:41.105ZNorthAmericaUnitedStatesSoftwareYES2020 Project PromotionsNOhttps://video.igem.org/w/igRrcGm1wRQYhuECNHPMANhttps://video.igem.org/lazy-static/thumbnails/814a7963-c780-4679-9d43-1de08035d743.jpgXiamen_city: Scavenger of ROS (2020) - Project Promotion [Chinese]Still struggling with the physical discomfort and exhaustion of staying up late？The NapTuner team will help you get out of this mess! Our promotion video consists of a sitcom and science illustration. By using straightforward and logical interpretation, we'll help you to get insight of how our product functions and the biotechnological and experimental methods we take to carry out our solution. Click on this Video and embrace a healthier life with us! Wiki Link: https://2020.igem.org/Team:Xiamen_city Credits: Director & Producer: Gao Yicheng Written by: Li Jiahua, Xu Donghai Director of Photography: Gao Yicheng Actors: Liu Tinghe, Ma Rongyu Light & Grip: Li Jiahua Edit: Gary Caihttps://static.igem.org/peertube/streaming-playlists/hls/8be1fa97-359c-4a2c-89d1-a949b7e3bade/b45c8d70-d6cb-4128-ba86-5595a5c57f23-master.m3u8https://video.igem.org/videos/embed/igRrcGm1wRQYhuECNHPMAN1200152020-09-25T02:49:38.086ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/qTveySpPyUJFEj91vrLFdjhttps://video.igem.org/lazy-static/thumbnails/99d20a5f-7f37-4d8a-8fbf-8a36aab41a5f.jpgTU_Darmstadt: B-TOX (2020) - Project Promotion [English]iGEM Darmstadt introduces you to B-TOX - reduction of wastewater toxicity using a B. subtilis biofilm. With our project we tackle a global problem of chemical pollution in wastewater. In particular we are focusing on Diclofenac and Azithromycin, both of which have been found in German wastewater in concerning concentrations in recent years. To achieve this, we immobilize enzymes on the matrix of our biofilm. We hope to see you all at our presentation! https://2020.igem.org/Team:TU_Darmstadt **Wastewater Treatment Plant:** Entega Abwasserreinigung GmbH & Co. KG: Wolfgang, John **Biofilm Carriers:** RVT Process Equipment GmbH Enexio Water Technologies, 2h components & solutions **Background Music:** 'Back In Your Arms' , www.evermusic.de (royalty-free) Find us on: **Instagram**: https://www.instagram.com/igem_darmstadt/ **Twitter**: https://twitter.com/igem_darmstadt **Facebook**: https://www.facebook.com/iGEMDarmstadt or write to igem@bio.tu-darmstadt.de! https://static.igem.org/peertube/streaming-playlists/hls/c98c46b1-8377-4a8c-a0ac-5f4caa04c9d6/ef413631-6374-459c-8c9a-2cc42a0f43a7-master.m3u8https://video.igem.org/videos/embed/qTveySpPyUJFEj91vrLFdj11903412020-09-24T09:06:59.402ZEuropeGermanyEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/ahV6sPxfnkSXL4xhMtDqB4https://video.igem.org/lazy-static/thumbnails/c52f7a7b-5b47-4ef9-8112-63d62d7130ea.jpgDeNovocastrians: Engineering Microbes to Degrade Benzene (2020) - Project Promotion [English]Abstract: Through our project, we hope to eliminate benzene in polluted soil, water, and other environments through bioremediation. First, we are creating a biosensor to detect environmental levels of benzene through a fluorescent protein expression system. Next, our project will extract benzene degradation gene clusters from niche bacteria (and shuttle the genes via a plasmid vector) to transform model Eschericha coli species into a practically useful species to clean up polluted sites. Wiki Link: https://2020.igem.org/Team:DeNovocastrians Credits: Voice Overs/Appearances: Aakash Patel, Angela O'Connor, Catherine Mackay, Darcy Kilvert, Dayna Perez, Luke Gerassimou, Ruby Pippen Edited by: Dayna Perez, Angela O'Connor Copyright Free Music Attributions: Fearless First by Kevin MacLeod Link: https://incompetech.filmmusic.io/song/3742-fearless-first License: http://creativecommons.org/licenses/by/4.0/ Creative Commons Free License Video Attributions: Pexels (https://www.pexels.com/) filmmakers and photographers, including: Polina Tankilevitch, GamOI, Kelly Lacy, Maroc Editor, Dan Aniss, Amit, Mike,Magda Ehlers, Svanur Gabriele, Kevin Yau Other Links: Facebook: https://www.facebook.com/DeNovocastrians2020 Twitter: https://twitter.com/DNovocastrians Medium: https://medium.com/@denovocastrians https://static.igem.org/peertube/streaming-playlists/hls/4b3ede63-d0af-4c12-9554-cdb143185969/d6cb3586-c9a0-4014-aee5-b896e4c4723b-master.m3u8https://video.igem.org/videos/embed/ahV6sPxfnkSXL4xhMtDqB41200792020-09-24T11:14:41.164ZAustraliaEnvironmentAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/gZ8QXEAB4FDLYqK4qgsQy9https://video.igem.org/lazy-static/thumbnails/47de02f4-dc46-4f3d-8444-db3c715fef80.jpgHK_CPU-WFN-WYY: Cutinases The Terminators of Microplastics (2020) - Project Promotion [English]Abstract: Our team is presenting this biological way to alleviate PET pollution. In this video, we are going to introduce our project inspiration, how cutinases work to break down PET plastics into two non-toxic products, and what we are going to do in our project. For easy understanding, our solution will be presented mainly by animation and with little photos. Wiki Link: https://2020.igem.org/Team:HK_CPU-WFN-WYY Credit: Pius (Video editor and group leader) Jasmine (Video editor and art director) Ada (Video editor and art director) Cherry (Video editor and art director) Julie (Narrator) Stephen (Video editor) Vera (Art director) Clarice (Art director) Eunice (Art director) Serena (Art director) Ricky (Advisor and photographer) Wesley (Photographer) Ross Bugden (Music-parallel) Audioknap (Music-energetic drums) Revive & Restore SnapGene Social Media Link: https://www.instagram.com/igem_cpuwfnwyy/ https://static.igem.org/peertube/streaming-playlists/hls/81734f14-a7bb-4f4c-a36b-1d9f817cf748/8e57656c-e1c1-4e51-b83c-dfe43e8562a4-master.m3u8https://video.igem.org/videos/embed/gZ8QXEAB4FDLYqK4qgsQy91190692020-09-24T13:17:50.635ZHongKongHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/bjSceoM6feKPipSej1yem5https://video.igem.org/lazy-static/thumbnails/2b869765-801f-4a86-9478-2def28eaa18b.jpgUiOslo_Norway: sal.coli (2020) - Project Promotion [Norwegian]This video was edited and filmed by Simen Kjellin at the University of Oslo, Norway.https://static.igem.org/peertube/streaming-playlists/hls/539db517-5695-44fa-8352-6d9291b0ace0/59b9812d-4e91-47db-a848-e9a220ed0f48-master.m3u8https://video.igem.org/videos/embed/bjSceoM6feKPipSej1yem51200802020-09-24T10:28:33.564ZDiagnosticsNorwayEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/fkVH318rhfux6LU97vruHJhttps://video.igem.org/lazy-static/thumbnails/19c467c3-67ac-4052-9b8c-6f54d934935c.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [English]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriber https://static.igem.org/peertube/streaming-playlists/hls/74282bd9-81b5-4a59-a269-08a4d28c81dc/b2b331aa-b824-4599-beff-a323c42d2379-master.m3u8https://video.igem.org/videos/embed/fkVH318rhfux6LU97vruHJ11901862020-09-24T20:51:32.337ZNetherlandsEuropeEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/e6UdEJGKkDGYqr8U85YAghhttps://video.igem.org/lazy-static/thumbnails/44455d76-424a-494f-a135-cd74533eeb87.jpgTAU_Israel: sTAUbility (2020) - Project Promotion [English]Abstract: With the help of Phillip, a somewhat frustrated lab worker, you will get to know the problem of genomic stability in the world of synthetic biology and how it affects the work of each of us. We provide a solution using sophisticated software that we developed based on bio-informatic tools and experimental data. Our solution will improve the stability of any given target gene over time. As we helped Phillip, we can help you! Wiki Link: **https://2020.igem.org/Team:TAU_Israel** Credits: *Script and Editing: TAU Israel Team Animation: Ruzi Buber English Narration: Quentin James Music: Our Inspiring Corporate by Redafs.com, Licensed under Creative Commons: By Attribution 3.0 License.* Other links: Facebook: https://www.facebook.com/igemtau/ Twitter: https://twitter.com/IgemTau Instagram: https://www.instagram.com/igem_tau/ Linkedin: https://linkedin.com/company/igem-tau Wix: staubility.com https://static.igem.org/peertube/streaming-playlists/hls/6a19b3c1-5eb9-4b92-8b0a-b86cc72c4e1e/63899230-0db6-4ccd-af5a-1547e48cfd37-master.m3u8https://video.igem.org/videos/embed/e6UdEJGKkDGYqr8U85YAgh12003212020-09-24T11:21:51.995ZFoundationalAdvanceAsiaIsraelYES2020 Project PromotionsNOhttps://video.igem.org/w/1k5dndZ12MzaonFZ3t99k9https://video.igem.org/lazy-static/thumbnails/8acc42c2-6359-479c-be01-de8f4a03c813.jpgToulouse_INSA-UPS: iGEMINI (2020) - Project Promotion [English]**Title:** iGEMINI, a coculture for food supplements production in space **Abstract:** Space exploration drives us further away from earth and will eventually lead to years-long space travels. Some essential nutrients such as vitamins cannot be stored on spacecraft since they decay over time. iGEMINI aims to supplement astronauts’ food with nutritional and tasty yeast. We designed a quasi-autonomous coculture of two microorganisms. This system uses minimal resources currently considered as waste to produce provitamin A-enriched yeast along with optogenetically-selected flavors. [Wiki](https://2020.igem.org/Team:Toulouse_INSA-UPS) | [Presentation](https://video.igem.org/videos/watch/0195342d-4c1d-4908-ae87-328fbcbbbc22) **Credits:** Filmed and edited by Rémy Leroy With Anton Mykhailiuk / Arno Bruel / Cécilia Brancheriau / Eliot Goguet Laura Balcells / Laurène Adam / Pierre Demoux / Solène Frapard Modeling and Comp 3D Pierre-André Fontaine VFX Artist Louis de Rolland Additional not Copyrighted footage NASA (Royalty Free) Pixabay (Pixabay Licence) Special Thanks to Cité de l’espace, Toulouse Mathilde Girou Alain Berard Music Scott Holmes - Cinematic Trailer (Free Music Archive) [Instagram](https://www.instagram.com/igem_toulouse) | [Facebook](https://www.facebook.com/pages/category/Biotechnology-Company/IGEM-Toulouse-1604834019761538) | [Twitter](https://twitter.com/igem_toulouse) https://static.igem.org/peertube/streaming-playlists/hls/02a9ba65-6ec1-4be7-b3e7-07cc5a3ff566/6450e688-53d2-4a33-8d58-7c437982af19-master.m3u8https://video.igem.org/videos/embed/1k5dndZ12MzaonFZ3t99k9120029012020-09-24T11:28:20.510ZFranceFood&NutritionEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/k9S8a7nW2jQjUEKJH4BNvShttps://video.igem.org/lazy-static/thumbnails/da17f090-6c30-4428-b090-a0d1ef17f361.jpgStockholm: S-POP (2020) - Project Promotion [English]iGEM Stockholm 2020 presents S-POP: a fast and cheap solution to detect persistent organic pollutants in the Baltic sea. Thanks to synthetic biology, we engineered two bacterial strains in order to create a modular biosensor capable of detecting PFOAs and biphenyls and generating pollutant-specific oscillatory electrical outputs in a microbial fuel cell. Thanks to its modularity, it can easily be further adapted to other pollutants in the future. https://2020.igem.org/Team:Stockholm ================= CREDITS ================= Aditi Kallai Astha Kaul Athina Eleftheraki Corinna Mayer Hanna Mårtensson Julie Cordier Layung Wikanthi Richard Brunsell Sofia Klangby Umme Hany Islam Victoria Muliadi Xinhe Xing Music: https://www.purple-planet.com ======== FOLLOW US ON SOCIAL MEDIA ======== Instagram: https://www.instagram.com/igemstockholm/ Facebook: https://www.facebook.com/igemstockholm YouTube: https://www.youtube.com/channel/UCh_a6JvWdh6N_i5tYFFcpyw LinkedIn: https://www.linkedin.com/company/igemstockholm Homepage: https://igem.se/ https://static.igem.org/peertube/streaming-playlists/hls/9b1a796e-6c59-46a0-9fbc-8dcfe68b9484/ce77118b-6d5a-488e-aa37-9c004b900488-master.m3u8https://video.igem.org/videos/embed/k9S8a7nW2jQjUEKJH4BNvS11502282020-09-24T12:57:23.086ZEuropeEnvironmentSwedenYES2020 Project PromotionsNOhttps://video.igem.org/w/2sMnnxAqayh8rLXTqkNUtUhttps://video.igem.org/lazy-static/thumbnails/1447d3b8-4e2d-48e6-9562-d6e686856869.jpgAalto-Helsinki: SINISENS - Towards cleaner waters (2020) - Project Promotion [English]Abstract: Aalto-Helsinki 2020 team presents SINISENS, an E. coli biosensor which aims to detect macrolide antibiotics in wastewater treatment plants. In response to macrolides, SINISENS produces a green fluorescence output allowing wastewater treatment plants to monitor the concentration of these compounds in a fast and cheap way. Monitoring them will help to optimize the removal of pharmaceuticals from wastewaters in the future. Wiki Link: https://2020.igem.org/Team:Aalto-Helsinki Credits: - Team members on screen: Amanda Sandelin, Artur Gynter, Carla Coll Costa, Emilia Barannik, Gustav Åberg, Julia Manninen, Natalia Lindholm, Tytti Jämsä. - Production: Spark Wilkie. - Drone shots: Oskari Valtonen. - Voiceover: Tytti Jämsä. - Sound: Tomi Trofast. - Music: ANBR and Ian Post. - Pre-production: Aalto-Helsinki 2020 iGEM team. Other Links: - http://www.aaltohelsinki.com/ - https://www.instagram.com/aaltohelsinki_igem - https://twitter.com/AaltoHelsinki - https://blog.aaltohelsinki.com/ https://static.igem.org/peertube/streaming-playlists/hls/0bd66f9d-6113-4810-b8ed-7389d2c3f642/9b987b8f-8ad9-415f-8994-dabd408c373d-master.m3u8https://video.igem.org/videos/embed/2sMnnxAqayh8rLXTqkNUtU11909732020-09-24T19:00:04.645ZEuropeFinlandEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/nBdSsL7Q9tL8m7h8fTfsEDhttps://video.igem.org/lazy-static/thumbnails/665f825d-3759-456e-8e80-191cf9372030.jpgMRIIRS_FARIDABAD: Li-Koff-To Detect and Degrade N-Nitrosamines (2020) - Project Promotion [English]N-nitrosamines; formed due to reaction between nitrites and secondary and tertiary amines. Majority of them are known to be potent carcinogens and are mainly present in water post the stage of disinfection in water treatment plants. Through Li-Koff we aim estimate the biotoxicity of these nitrosamines in water samples through an engineered E.coli which generates fluorescence. The engineered E.coli also degrades some of these nitrosamines upon detection. https://2020.igem.org/wiki/index.phptitle=Team:MRIIRS_FARIDABAD&action=edit @Aditya_Aman_CreativeDirector https://www.linkedin.com/in/igem-manavrachna-2609601b5 https://www.instagram.com/igem_manavrachna?r=nametag https://www.facebook.com/Igem_manavrachna-105518574644696/?modal=admin_todo_tourhttps://static.igem.org/peertube/streaming-playlists/hls/aefae00f-fb22-46df-a943-60e3902c8349/94a44e98-764c-4c7e-a894-4261834d4f59-master.m3u8https://video.igem.org/videos/embed/nBdSsL7Q9tL8m7h8fTfsED1100412020-09-24T18:43:07.480ZEnvironmentIndiaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/rkbWF5LWUodCKtCcP2RAqZhttps://video.igem.org/lazy-static/thumbnails/e1407c17-f782-4b81-836c-3044b067fc8f.jpgGDSYZX: Cultural Great Adventure to Rice (2020) - Project Promotion [English]This is a news report from GDSYZX TV station. Some Chinese students have provided a new possible way to prevent COVID-19. During the epidemic, some Chinese medicines containing honeysuckle were efficiently used in preventing and treating the COVID-19. They have found chlorogenic acid is the most active ingredient in honeysuckle. So, their vision is to increase the amount of chlorogenic acid in staple food crops to prevent virus diseases through daily diet. https://2020.igem.org/Team:GDSYZX Production Director: Mingkun Zhu, Yuting Liu Director: Jiahua Zou Cameraman: Yongze Li Anchorperson: Jielin Huang Reporter: Yizhen Yanghttps://static.igem.org/peertube/streaming-playlists/hls/cd22577e-d0f0-434c-b14c-313d2e249349/25847c1e-526e-484c-ba07-fc0fa0e56372-master.m3u8https://video.igem.org/videos/embed/rkbWF5LWUodCKtCcP2RAqZ1070482020-09-24T12:24:52.759ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/hv6Fi9YeemDgaoRSznPqDBhttps://video.igem.org/lazy-static/thumbnails/3281136c-023b-49d3-b5b5-d108677ca8e0.jpgBIT: Dr. Watson (2020) - Project Promotion [English]Abstract: Our research focuses on designing an integrated detection system for novel coronavirus, overcoming the problems of high detection cost and complex detection process, based on the design of biosensing modules, centrifugal chip modules and smartphone modules, to achieve rapid, sensitive, portable and low-cost "sample-to-answer" integrated detection for nucleic acid and protein markers associated with new coronavirus, and to provide an effective detection scheme for novel coronavirus in places where medical testing resources are scarce. Wiki Link: https://2020.igem.org/Team:BIT Credits: Liu Zhoumi; Li Anyi; Mai Dina; Zhou Taiyan; Gan Daisong; Guo Jiajun; Jing Ruoyan; Zhang Yibo; Zhang Tianjun; Kang Anshun; Wang Weilu; Wang Zhiyuan; Hu Jinliang; Gao Yawen; Gao Lianyang; Zhong Hua; Yao Xuan Other links (Optional): igem_bit@outlook.com 870912295@qq.comhttps://static.igem.org/peertube/streaming-playlists/hls/85a2496a-866b-4ef0-822b-38fb2d048c2d/661b659e-4e9b-484a-927d-b18c7079b43f-master.m3u8https://video.igem.org/videos/embed/hv6Fi9YeemDgaoRSznPqDB11801312020-09-24T15:06:52.177ZAsiaChinaDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/tfryU2KnKGKaTNujWBiLgghttps://video.igem.org/lazy-static/thumbnails/6d590aa7-249c-4a83-bb78-b683441e93b0.jpgROADS_SY: Rice Arsenate Accumulation Reduction (2020) - Project Promotion [English]Abstract: Our project combines bioinformatics and bioengineering to address an important food safety issue: the arsenate accumulation of rice. In the process of problem solving, we also have the chance to validate the practicability of using bioinformatics method to target genes. The product of the project consists of an algorithm and an experiment plan. Wiki Link: https://2020.igem.org/Team:ROADS_SY Credits: Suning Hong (narration), Yudan Wang (script), and Xinbo Li (video). Thanks to WeilanHuohong Studio for the overall production!https://static.igem.org/peertube/streaming-playlists/hls/dcaae9b6-7f0b-41f9-a847-73a520d109bd/ec35d35d-2528-47be-ba27-a84d58eafaca-master.m3u8https://video.igem.org/videos/embed/tfryU2KnKGKaTNujWBiLgg1040222020-09-24T12:32:24.273ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/3eo6NTYSHcSBEn2jLMBqBwhttps://video.igem.org/lazy-static/thumbnails/4b3643a9-3b0d-4e2c-831a-8304dd143865.jpgHannover: InToSens - Inflammatory Toxin Sensor (2020) - Project Promotion [English]This is the promotion video for the project "InToSens - Inflammatory Toxin Sensor using luminescence and magnetizable cells" of the iGEM Team Hannover 2020. In this video we provide an outline of our project, in which we develop a sensor based on biological parts for the early and non-invasive detection of implant associated inflammation. We performed in-vitro proof of concept experiments by utilizing the interdisciplinary skillset of our team members. https://2020.igem.org/Team:Hannover. Anna-Charleen Wessel, Céline Beckhausen, David Theidel, Fiene Daniel, George Dati, Jonas Scholz, Jan Mairose, Laura Wesche, Louise Schaar, Lisan Püttmann, Lara Gentemann, Manmeet Singh, Pia Peppermüller, Sören Donath, Timm Landes, Thorben Klamt. https://instagram.com/igem_teamhannover?igshid=10t4g4ej11saf https://twitter.com/igem_hannover?s=09 https://m.facebook.com/iGEMTeamHannover/ https://static.igem.org/peertube/streaming-playlists/hls/121090e7-5421-427f-8a69-1bd0a39ed234/9fdf3bde-a505-4f12-b476-afe373e1c53d-master.m3u8https://video.igem.org/videos/embed/3eo6NTYSHcSBEn2jLMBqBw1180812020-09-24T12:58:13.790ZDiagnosticsEuropeGermanyYES2020 Project PromotionsNOhttps://video.igem.org/w/uhZd2pxPEs6usvHK653wvwhttps://video.igem.org/lazy-static/thumbnails/763d147b-57aa-46f4-b5bf-f982ebbaea1b.jpgSYSU-Software: Maloadis (2020) - Project Promotion [English]Abstract: To improve efficiency in synthetic biology design, we create Maloadis, an integrated automated design platform featuring DBTL (Design, Build, Test, and Learn) workflow. We combine design, search, simulation, and experiment optimization altogether. Automated top-down design can be carry out smoothly on our software with machine learning algorithm and image search engine. Afterwards experiment cycle can be shortened using Bayesian optimization. Wiki link: https://2020.igem.org/Team:SYSU-Software Credits: Director: Yilin Zhou, Yuhou Chen, Jiangyue Yuan Writers: Jiangyue Yuan, Junli Du, Ruoheng Mo, Yue Zeng Cast: Junli Du Dubbers: Junli Du, Yue Zeng Editors: Yilin Zhong, Yuhou Chen Special thanks to A.P. Caiyun Sun, Ms. Xiaoxia Chen for suppling lab shooting scene, and Haoyuan Feng for suppling photographic equipment. other links: contact us at sysu_software20@163.comhttps://static.igem.org/peertube/streaming-playlists/hls/e51f09be-4b3d-49f1-9c08-7a0cdb55f9d8/d65b4e50-8e93-44f9-8afb-71ff4cb2dbf2-master.m3u8https://video.igem.org/videos/embed/uhZd2pxPEs6usvHK653wvw1170592020-09-24T13:00:06.936ZChinaAsiaSoftwareYES2020 Project PromotionsNOhttps://video.igem.org/w/5LaCBgmE2VLHn1NaWiL8zThttps://video.igem.org/lazy-static/thumbnails/e213328b-1c1b-4539-af7b-d23b52fe7401.jpgBOKU-Vienna: Phangel (2020) - Project Promotion [English]Abstract: We are the iGEM team BOKU-Vienna 2020 and we present our project Phangel through which we will take bacteriophage therapy one step further. Some bacteria release toxic substances from their membranes when they die, possibly leading to septic shock. Phangel is a genetically engineered phage that infects a harmful bacterium and incites the production of a protein that binds the endotoxins so that they are not released into the system. Wiki Link: https://2020.igem.org/Team:BOKU-Vienna Credits: > Idea: Benedikt Haslinger, Katja Starnberger, Lukas Pucher, Oona Jung; > Filming: Benedikt Haslinger, Katja Starnberger, Oona Jung; > Animation & Voice: Katharina Ostertag > Video Editing: Benedikt Haslinger > Music: mixkit.co GIFs: giphy.com Animations: prezi.com https://static.igem.org/peertube/streaming-playlists/hls/268f3747-e86c-4e83-9e0f-e19b62b0c199/3254c633-04d6-4bba-91b9-a8fcc501cca1-master.m3u8https://video.igem.org/videos/embed/5LaCBgmE2VLHn1NaWiL8zT11301232020-09-24T13:14:00.197ZEuropeTherapeuticsAustriaYES2020 Project PromotionsNOhttps://video.igem.org/w/hDNzuqDtrRnVN5hCyxVGdihttps://video.igem.org/lazy-static/thumbnails/5e634faa-4217-4ebb-b50d-4c7c26575460.jpgSCU-WestChina: LK (2020) - Project Promotion [English]Lung fibrosis is an important pathological manifestation of interstitial pulmonary disease, but the effect of anti-fibrosis drugs on the market is poor. Anti-fibrosis recombinant protein drugs we designed will be delivered by liposomes inserted with a targeted probe of fibrosis lesion on the surface. Probes targeting collagen fibers was fused with fibrosis progression factor truncated receptors and plasminoid-activated peptides, respectively. In vitro, we are using molecular docking, immunoco-precipitation experiments, pulmonary fibrosis model to verify the anti-fibrosis effectiveness of the recombinant protein drugs. Contact Us: SCUWestChina@163.com Our Wiki Link:https://2020.igem.org/Team:SCU-WestChinahttps://static.igem.org/peertube/streaming-playlists/hls/86d97141-3f8b-4f83-a17d-ea4b91c728a1/7bf9ad3b-f718-46d6-8d7b-45f6365caffc-master.m3u8https://video.igem.org/videos/embed/hDNzuqDtrRnVN5hCyxVGdi1060342020-09-24T14:33:54.651ZChinaAsiaTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/4sKQVr8ReRsboU6i1SH3hFhttps://video.igem.org/lazy-static/thumbnails/ac0b1361-1ee7-444f-bf78-7b32ff4d8dd8.jpgIIT_Roorkee: Pyomancer (2020) - Project Promotion [English]**Abstract:** To combat the post-antibiotic era, we propose an alternative therapy against MDR infections, thus marking the beginning of a paradigm shift in the healthcare industry towards narrow-spectrum treatments. We have engineered a protein that combines the properties of Bacteriophage & Pyocins to provide a recombinant protein therapy that is highly potent and selective, with unlimited applications. This idea also bypasses phage therapy complexities and can serve as a massive breakthrough for the global pharmaceutical industry. **Wiki Link:** https://2020.igem.org/Team:IIT_Roorkee **Credits:** ------------------------------------------------------ **Mentor:** Darshak Bhatt **Story and Creatives:** Sanjeevani Marcha **Script:** Yash Aggarwal, Tishee Natani **Narration:** Tishee Natani **Production:** Kartikey Kansal ------------------------------------------------------ 1. Video **IIT Roorkee Campus Drone Shots** _[00:05::00:14]_ **:** Cinematic Section, IIT Roorkee 2. Images **Female doctor checking on Covid-19 infected patient while connected to a ventilator stock photo** _[00:44]_ **:** Getty Images(Standard Liscence) **Hospital Images** _[00:46]_ **:** Pexels(Royalty Free) **A scanning electron micrograph (SEM) of a highly magnified cluster of Gram-negative, non-motile Acinetobacter baumannii bacteria** _[00:48]_ **:** Mag - 13331x. Source:CDC's Public Health Image Library Image #6498 Photo Credit: Janice Carr(Public Domain) **Lab Images** _[01:02]_ **:** (Location: Prof. Navani's Lab, IIT Roorkee), Courtesy: Pradum Kumar(Student, Team Member) 3. Apperances _[00:18]_ **:** Vandana Aggarwal, Chanchal Aggarwal, Yash Aggarwal _[01:02]_ **:** Siddharth Fitwe, Pradum Kumar 4. Background Music **AShamaluevMusic**: (No Copyright for non-monetized content) _(No copyright infringement is intended)_ ------------------------------------------------------ **Other Links** **Instagram:** https://www.instagram.com/igem_iitr/ **Facebook:** https://www.facebook.c...https://static.igem.org/peertube/streaming-playlists/hls/1c07c603-fe21-4128-99fd-10c211df7257/da0f8158-e722-42d8-8f75-308711c871b1-master.m3u8https://video.igem.org/videos/embed/4sKQVr8ReRsboU6i1SH3hF11701502020-09-24T15:06:48.634ZTherapeuticsAsiaIndiaYES2020 Project PromotionsNOhttps://video.igem.org/w/t8obQRerYeq3ZitNe2xz61https://video.igem.org/lazy-static/thumbnails/7f616b44-4d61-4349-ac82-b7b74dff31bd.jpgASTWS-China: Microplastics degradation biofilm (2020) - Project Promotion [English]Abstract: The world is drowned in plastics pollution. To solve this problem, we genetically modify E.coli to make it able to biodegrade PET. Also, we introduce the OmpR gene to strengthen our biofilm systems which increase the degradation efficiency and help capture nano-PET. Here we also give a brief introduction to our designs for implementation in factories. Thanks for watching the promotion video of ASTWS- China！ Wiki Link: **https://2020.igem.org/Team:ASTWS-China** Credits: *Consultant: ASTWS-China Animation design and Editing: Yao Wang, Jieli Dai Script: Hengyi Zhang, Junran Zhao Dubbing: Shufu Zha, Yunqi Wang, Junran Zhao Special Thanks: Worldshaper-Academy* Other links: WeChat：gh_2ed7388c1bf7（ASTWS2020） Email address: ruyi.shi@worldshaper.cn; 2608280230@qq.comhttps://static.igem.org/peertube/streaming-playlists/hls/dbae9f96-c1e0-4685-9c5b-161cf81cb1ce/efd83e5a-94cc-4126-8d7a-5e5c2de51330-master.m3u8https://video.igem.org/videos/embed/t8obQRerYeq3ZitNe2xz6111902522020-09-24T14:38:03.943ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/x4ieZ9MuB2nLy4C8DTYcDvhttps://video.igem.org/lazy-static/thumbnails/a6c9a046-025d-45ef-90e9-16074d3364ba.jpgSUSTech_Shenzhen: Facilitate Bioremediation with a Molecule (2020) - Project Promotion [English]Here we present a chemical biology approach of developing a broad-spectrum molecule that can protect Pseudomonas (mainly P. putida) from phages infection. We attempt to utilize the Target-Directed Screening technique to find a small molecule compound which disrupts the translation of a critical protein during phages infections, and we have successfully found a compound with biological activity recently.https://static.igem.org/peertube/streaming-playlists/hls/fb8127ad-89ed-448c-8c3f-895037d29cdb/5dec5a42-9b7a-4bc7-a1de-8b914bb7e693-master.m3u8https://video.igem.org/videos/embed/x4ieZ9MuB2nLy4C8DTYcDv980322020-09-24T14:48:42.210ZEnvironmentChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/jPsgLzcTRcKp3BE3r61jewhttps://video.igem.org/lazy-static/thumbnails/cfcf738c-06f2-4b64-9c91-7bd5690f4653.jpgWaseda: Gene circuits in Cell-free system (2020) - Project Promotion [English]Abstract: In order to prevent COVID-19 cluster infection, limited personnel and time is allowed in the laboratory at once. To resolve this, iGEM-Waseda conducted a gene circuit in a cell-free system. Flexibility in parameters of cell-free system enabled us to accurately simulate the gene circuit at home and utilize the limited time in the laboratory Wiki Link: **https://2020.igem.org/Team:Waseda** Credits: *Design & Illustration: Rei Abe(iGEM-Waseda) Voice: Kae Nakamura(iGEM-Waseda) Music: Satoshi Suzuki,Composition:Satohiro Takizawa(iGEM-Waseda), Kanta Suga(iGEM-Waseda), Edit:Asobi Chanson* https://static.igem.org/peertube/streaming-playlists/hls/9864a4c8-8f01-4065-9ce4-a16e245b2408/dfcefc2b-f72b-4add-97b3-9f6983337d48-master.m3u8https://video.igem.org/videos/embed/jPsgLzcTRcKp3BE3r61jew11902872020-09-25T07:07:21.481ZJapanInformationProcessingAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/kPSBLKAdVv8NYJC1yfhQJhhttps://video.igem.org/lazy-static/thumbnails/d50483c7-63a6-4217-9684-d2573ac1528a.jpgMichiganState: BeeTox (2020) - Project Promotion [English]**Abstract:** With bees continuing to die at an alarming rate, our team decided to take on the challenge to address one factor contributing to their decline: pesticides. Our project, BeeTox, involves developing a probiotic that allows bees to break down imidacloprid, a common neonicotinoid pesticide. We divided into 3 subteams (Gene Engineering, Bioinformatics, and Device) to address different aspects of the project. This technology has the potential to save countless bees and the plants they pollinate. **Wiki Link:** https://2020.igem.org/Team:MichiganState **Credits:** *Script:* Emma Dester, Kate Adams-Boone, Emma Boismier, and Nathaniel Pascual *Narration:* Emma Boismier *Animations:* Kate Adams-Boone *Editing:* Emma Dester **Follow us on Instagram (@msuigem) and Twitter (@MsuIgem)!** https://static.igem.org/peertube/streaming-playlists/hls/a08cc910-b458-422d-9be4-d09fb20ae1b4/a7940140-960b-478f-b0af-cf79f887d35c-master.m3u8https://video.igem.org/videos/embed/kPSBLKAdVv8NYJC1yfhQJh1190572020-09-24T15:23:43.460ZUnitedStatesEnvironmentNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/4mo1DH8t8vJSufzo3A34oXhttps://video.igem.org/lazy-static/thumbnails/a09042bf-6dd6-4c0c-b366-24cffaa81ef8.jpgMontpellier: Phagent (2020) - Project Promotion [English]Phagent is a treatment against cancer involving bacteria of the tumor microbiome and phages. The latter will be genetically modified in order to transform bacteria of the microbiome. Then, the bacteria will produce proteins that will interfere with cancer cells and trigger apoptosis. This would help classical treatments that are not always efficient to fight cancer. https://2020.igem.org/Team:Montpellier Credits: Team members Julien Casalengo, Alicia Da Silva, Theo Herail, Safa Ioui, Juliette Moreau, Iman Tsabet, Badreddine Zaïdi - Video realisation: Juliette Moreau - Advisors: Jérôme Bonnet, Guillaume Cambray, Diego Cattoni, Luca Ciandrini, Christine Doucet, Peter Voyvodic https://www.instagram.com/igem_montpellier/ https://www.facebook.com/igemmontpellier https://twitter.com/igem_mtp?lang=fr https://www.linkedin.com/in/igem-montpellier-3051a1187/https://static.igem.org/peertube/streaming-playlists/hls/1b23db34-8049-4ae1-bced-7330d0defa4f/3ef5d73b-90eb-49b3-aa5e-ec9fdb5b3e9a-master.m3u8https://video.igem.org/videos/embed/4mo1DH8t8vJSufzo3A34oX1110452020-09-24T15:17:59.039ZTherapeuticsFranceEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/qwApYb4fQXY7g4p7DVG3zKhttps://video.igem.org/lazy-static/thumbnails/b332d91b-e81f-4792-ad56-33cafa3acccf.jpgBHSF: Kronos yeast (2020) - Project Promotion [English]Description: In order to solve the problem of over-fermentation while making bread, we came up with auxotroph yeast and a circuit based on a toggle switch. At the beginning of fermentation, an inducer is added to initiate the triggering of the toggle switch. Over a period of time, the toggle switch shuts down the expression of complementary gene for the auxotroph and thereby terminating fermentation. Wiki link: https://2020.igem.org/Team:BHSF/demo Credits: video of making bread--Annika Shi, video explaining toggle switch--Reina He, music--shaai Region Other links: Bilibili--https://space.bilibili.com/351503530/?share_source=copy_link&share_medium=iphone&bbid=ZB4FD6BCF80DECDE4E5194E81BF7333B90A8&ts=1600954153 Wechat official account--https://mp.weixin.qq.com/s/RSX-OAoM8oNuGzPju5J2tQ https://static.igem.org/peertube/streaming-playlists/hls/c6a0d94e-ccea-44ed-9558-36763063149d/afdf2770-9146-4a99-bc2f-69976f902f87-master.m3u8https://video.igem.org/videos/embed/qwApYb4fQXY7g4p7DVG3zK11902472020-09-24T15:04:40.622ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/eCHv6Z5RsAVhk8HMyJwitmhttps://video.igem.org/lazy-static/thumbnails/24bea66c-d627-4ced-9b77-e3d63205c68c.jpgKU_ISTANBUL: The Living Laser (2020) - Project Promotion [English]Abstract: We are creating a communication scheme between humans and biological cells by morphing cells into lasers. By this technology, we will be able to detect changes inside and around cells and tissues. These cell lasers can be employed in diagnostics and therapeutic purposes alongside as a high throughput method in basic research. Wiki Link: https://2020.igem.org/Team:KU_ISTANBUL Credits: Narration: Ali Doğa Yücel Editing: Fatih Uçar Content Creators: Özgür Can Oktay Göcenler Cengizhan Büyükdağ Serena Özabrahamyan Laşin Özbek İsmail Hakkı Yeşil Ali Rasim Emirdağı Zeliş Nergiz İsmail Baturay Altay Ayşe Buket Pekşen Music: Mental Preparation-Lee Miller(Royalty Free) Intro: iGEM Foundationhttps://static.igem.org/peertube/streaming-playlists/hls/6e672799-1921-4296-a732-ab0b5813f3a6/0559bcd0-6e81-49cb-8c91-82876fc73846-master.m3u8https://video.igem.org/videos/embed/eCHv6Z5RsAVhk8HMyJwitm1200502020-09-24T15:35:31.350ZNewApplicationTurkeyEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/hbQhBDFdiM5p4jzHLVE9TNhttps://video.igem.org/lazy-static/thumbnails/6c98674f-3059-4760-96a9-83b45ec74e86.jpgVilnius-Lithuania: FlavoFlow (2020) - Project Promotion [English]***Title:** FlavoFlow - a comprehensive exogenous fish infections detecton, treatment and prevention strategy **Abstract:** This year's Vilnius-Lithuania iGEM team project "FlavoFlow" offers a comprehensive solution to the emerging problems of the aquaculture farms. Our idea is a membrane-based rapid diagnostic test which identifies an exact Flavobacterium species only in a few hours. Also, with "FlavoFlow" project we are establishing a brand new platforms for better treatment and prevention systems for fish diseases. [Wiki](https://2020.igem.org/Team:Vilnius-Lithuania) | [Presentation](https://video.igem.org/videos/watch/57a08599-3590-465a-898a-33f2018ff136) **Credits:** *Vilnius - Lithuania iGEM 2020 team:* Ieva Lingytė Eglė Vitkūnaitė Kamilė Liucija Vainiūtė Auksė Kazlauskaitė Liepa Šiupšinskaitė Austėja Sungailaitė Emilija Radlinskaitė Edvinas Jurgelaitis Paulius Sasnauskas Emilis Gaidauskas Monika Gineitytė Barbora Vasiliauskaitė *Instructors:* Denis Baronas Povilas Šėporaitis Rūta Matulevičiūtė *Primary PI:* Rolandas Meškys *Advisor:* Paulius Toliušis *Filming & editing:* Moviement *Music:* Guustavv - Dusty Conscience [Facebook](https://www.facebook.com/VilniusiGEM) | [Instagram](https://www.instagram.com/igem_vilnius/) | [Website](https://vilniusigem.lt) | [Youtube](https://www.youtube.com/channel/UC9nOmauQmtqWaJa06Voz8nQ/featured) https://static.igem.org/peertube/streaming-playlists/hls/831569f1-ed65-41b3-bc9c-f68ab4d2c95c/defd3a7f-0029-4cdc-8bc7-9530bbe4d892-master.m3u8https://video.igem.org/videos/embed/hbQhBDFdiM5p4jzHLVE9TN120022842020-09-24T15:38:46.166ZEnvironmentEuropeLithuaniaYES2020 Project PromotionsNOhttps://video.igem.org/w/vYhzsU1GHpeheCfYgQSiTDhttps://video.igem.org/lazy-static/thumbnails/6c26604f-713f-472d-b237-6604dae0fdeb.jpgRDFZ-China: Tea-HEE (2020) - Project Promotion [English]Current medications for Major Depressive Disorder have great limitations. Our team designed “Tea-HEE” to provide patients a better treatment. With “Tea-HEE,” consuming tea will stimulate engineered bacteria in the patients’ gut to generate the enzyme TPH. TPH will turn tryptophan into 5-HTP, which will pass through the blood-brain barrier and form serotonin in the patients’ brain to fight Major Depressive Disorder. https://2020.igem.org/Team:RDFZ-China Credit: Directing: Mingyang Li, Minjia Pan, Xuannan Wu, Hang Xu, Boru Zhang Editing: Miyaji Shuni, Boru Zhang Acting: Shuying Han, Michael Jiang, Jieni Wu, Kunpeng Zhang, Shan Zhao, Xinyi Zheng Voiceover: Yuhong Chen Animation: Hang Xu BGM: “Inspiring Outlook” by scottholmes.com “The Island (instrumental)” by soundofpicture.com Vectors: “Flat Icons,” “ Freepik,” “ Pixel perfect,” “ Smashicons,” and “Vectors Market” from www.flaticon.com Contact information: michaeljiang1230@gmail.com https://static.igem.org/peertube/streaming-playlists/hls/f2b4e35f-6d87-4501-b2db-51df87ff3d47/c34fa09e-2862-4c7a-9729-7613cf6a53d0-master.m3u8https://video.igem.org/videos/embed/vYhzsU1GHpeheCfYgQSiTD1180532020-09-24T16:47:20.824ZAsiaHighSchoolChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/arSaDiV4GkH5CMV3AGFY96https://video.igem.org/lazy-static/thumbnails/703e96a3-d27f-4151-9a6e-8554233c76fc.jpgTUDelft: PHOCUS (2020) - Project Promotion [English]Abstract: Locust plagues currently threaten food security in the Horn of Africa, Arabian peninsula and South Asia, devastating croplands and pasture. We, the TU Delft iGEM team PHOCUS, aim to tackle locust crises by developing a targeted, fast-working and safe bio-pesticide based on engineered bacteriophages. Upon bacteriophage ingestion by the locust, toxic molecules will be produced by targeted bacteria in the locust gut, killing the it from within. Wiki link: https://2020.igem.org/Team:TUDelft Credits: We would like to thank QuickVision for their filming services, and Albert Animations for their help with animating our storyboard and the English voiceover. Creative content done by PHOCUS under the guidance of our supervisors. Other Links: https://www.facebook.com/TUDelft.iGEM2020 https://www.instagram.com/igemtudelft/ https://www.linkedin.com/company/igem-tu-delft/ http://igemtudelft.nl https://twitter.com/tudelft_igem?lang=en https://static.igem.org/peertube/streaming-playlists/hls/4c7ec21c-89eb-4491-97ca-b2f06e039d8d/c6ada93d-5b5a-4bb5-aa88-f45fd664fd94-master.m3u8https://video.igem.org/videos/embed/arSaDiV4GkH5CMV3AGFY9612004132020-09-24T17:34:22.629ZFood&NutritionNetherlandsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/irfmbFsqKumoU2PJknXN2jhttps://video.igem.org/lazy-static/thumbnails/afeef9c7-6124-4e93-9809-025dc9069aef.jpgLinkoping: ClusteRsy (2020) - Project Promotion [English]Abstract: We are the iGEM team from Linköping University in Sweden. We have dedicated our project to bridge the gap between clinicians and bioinformaticians, more specific in the unknowns of asthma disease. Therefore we have created Clustersy to visualize the differential transcriptome of any sample. We will also use Clustersy ourselves to find biomarkers and develop a theoretical biosensor for the detection of asthma. Wiki link: https://2020.igem.org/Team:Linkoping Credits: Adam Lång, Alexander Johansson, Osas Iyere, Natalia Savinkova, Astrid Welin, Ida Bergthén, Ronja Höglund, Christina Hedner, Erika Mattsson, Oliver Hild-Walett, Thalia Gárate Rodríguez, Frida Haugskott, Jake Pham and Lucas Porcile Facebook: https://www.facebook.com/LiUiGEM Instagram: https://www.instagram.com/liu_igem/?hl=en https://static.igem.org/peertube/streaming-playlists/hls/8d31cb32-93cb-411b-8b8d-497922ab1d8c/829e4dac-0873-47cf-a537-8499130d4498-master.m3u8https://video.igem.org/videos/embed/irfmbFsqKumoU2PJknXN2j12002952020-09-24T16:24:59.907ZSoftwareSwedenEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/7qNfNrDRgpkngRtmzZpNEMhttps://video.igem.org/lazy-static/thumbnails/f613f03b-705d-4cf6-a91a-d68aa4ee9f41.jpgNYMU-Taipei: Off the crown (2020) - Project Promotion [Chinese]Abstract: The COVID-19 epidemic has greatly impacted the world, and the virus’s fast transmission is rather concerning. Focusing on virus transmission, our team has designed and engineered gene constructs that can be used to develop various practical application products. When the SARS-CoV-2 binds with our construct, the virus’s spike protein would become inactivated, which would then lower the chance of infection. We have also developed a detection product that can fast detect virus presence. Wiki link: https://2020.igem.org/Team:NYMU-Taipei Credits: Wet lab: Yen-Hsun Huang, Tao-Wei Chang, Chun-Yi Wang, Jo-An Hsiung, You-Cheng Lee, Yu-Te Lan, You-Sheng Huang, Yu-Fan Lin Dry lab: Yu-Chuan Yang, Yu-Hao Chen, Jia-Yin Chen, Yi-Lin Liao Human practice: Hsin-Pei Yang, Chieh-Yun Peng, Bo-Han Li Advisor:Yi-Lin Liao, Bo-Han Li Professor: Chuan-Hsiung Chang, Ching-Fen Changhttps://static.igem.org/peertube/streaming-playlists/hls/340d302e-9050-4a0a-932c-3eddd6133c89/fb439360-ed70-46da-82e7-9d11aafae1b5-master.m3u8https://video.igem.org/videos/embed/7qNfNrDRgpkngRtmzZpNEM1200192020-09-24T16:50:57.577ZAsiaNewApplicationTaiwanYES2020 Project PromotionsNOhttps://video.igem.org/w/946csw9N3Cv7vz11HF8kiYhttps://video.igem.org/lazy-static/thumbnails/180717f1-0c0d-4b2a-88de-9e7b8e97a19f.jpgICS_BKK: Project Trojan Horse (2020) - Project Promotion [English]Abstract: Due to our team’s interest in finding alternate ways to treat strep throat and tonsillitis, we hope to utilize phage therapy to target colonies of Streptococcus Pyogenes in the throat and tonsils. Our ultimate goal is creating a mouthwash that contains Lactococcus lactis that would release a phage that could bind to S. Pyogenes, thus reducing its harmful effects in the cases of strep throat and tonsillitis. Wiki Link: https://2020.igem.org/Team:ICS_BKK Credits: Chavis (Ta) V. - Drawer Puripat (Plum) T. - Voice, Script Editor Nathaphol (Khaooat) R. - Logo Designer Kachatad (Best) P. - Subtitles Arisa (Ing) A. - Script Editor, Video Editor Pann S. - Script Editor https://static.igem.org/peertube/streaming-playlists/hls/41378b2f-104c-4113-94c5-ef3eab10bbe6/833b28b3-f355-4f09-8bfa-2f589e6c2f33-master.m3u8https://video.igem.org/videos/embed/946csw9N3Cv7vz11HF8kiY1170492020-09-25T12:16:52.725ZHighSchoolThailandAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/tJ7eJ1TJJc4suL1aU7FDeuhttps://video.igem.org/lazy-static/thumbnails/226cac6b-11dd-4485-b460-39f4f3a5dc11.jpgCPU_CHINA: Lico.Health (2020) - Project Promotion [English]Abstract: Alcoholic liver disease is a serious public health issue that has a high morbidity rate and might lead to liver cirrhosis and liver cancer even finally deaths of patients if lacks proper intervention. The abstinence therapy highly relies on the patients' self-control and can not be used under some circumstances. Team CPU_CHINA designed an engineered organism Lico, using Nissle 1917 as chassis to perform liver inflammation inhibition and intestinal flora control at the same time, aiming at supplementing the current therapy. Wiki Link: **https://2020.igem.org/Team:CPU_CHINA** Credits: *CPU_CHINA2020：Yilin Li,Junlin Shi,Jie Cheng,Yu Gao,Min Hai,Jingjing Huang,Boyang Lin,Roujin An,Weixuan Lu,Tong Lyu,Xiaoying Li,Yue He；SPECIAL THANKS：EtaAudio.com(music),Huandi Xu,Ye Tao,Boyang Liu,Hui Huang,China Pharmaceutical University* Other links: https://weibo.com/u/7485907376?is_hot=1https://static.igem.org/peertube/streaming-playlists/hls/e087d35b-b444-4df2-993a-88cdbcbd647a/066ea054-99a7-42b8-9b8f-8ad1138cec52-master.m3u8https://video.igem.org/videos/embed/tJ7eJ1TJJc4suL1aU7FDeu1200882020-09-25T02:20:57.802ZAsiaTherapeuticsChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/1ErgqGU86rn3C6yoj3SStNhttps://video.igem.org/lazy-static/thumbnails/6dab03ea-46a2-4fde-bdd2-3fcdc15ca743.jpgKCL_UK: Renervate (2020) - Project Promotion [Polish]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord needed to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/055dd57e-a976-41f2-b4d3-9ae7dfcd7904/b15fb26e-f7fe-4c7b-9afa-1b4331c9394e-master.m3u8https://video.igem.org/videos/embed/1ErgqGU86rn3C6yoj3SStN118042020-09-24T16:58:56.199ZUnitedKingdomTherapeuticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/e7jQExBBT5k3TVj9re1Reshttps://video.igem.org/lazy-static/thumbnails/bed86807-c14d-4c5e-87fd-fa7fbc6c0467.jpgGrenoble_Alpes: PyoBusters (2020) - Project Promotion [English]Abstract: As bacterial resistances constitute a global sanitary problem, it is crucial to find complementary or alternative treatments. Pyobusters is a biotreatment project created by the Grenoble_Alpes iGEM team. It consists of a genetically engineered E.coli that is able to specifically sense and destroy Pseudomonas aeruginosa and its biofilm. This treatment could be applied to a variety of infection sites that can be mimicked by our testing bench conceived to test Pyobusters. Wiki Link: https://2020.igem.org/Team:Grenoble_Alpes Credits: Directed by Cyril Novel-Catin Project by Sara Salhi, Elouen Le Garrec, Noémie Garnier, Mathieu Clavel, Hugo Techer, Iryna Moskalevska, Mattis Beilleau, Mandy Leger, Sébastien Rigollet, Mehdy Bert-Erboul, Florian Laffont. Other Links: https://www.facebook.com/igemfrancegrenoble https://www.instagram.com/igem_grenoble/ https://twitter.com/igem_grenoble https://www.helloasso.com/associations/igem-grenoble-alpes/collectes/pyobusters-make-the-lungs-breathe-againhttps://static.igem.org/peertube/streaming-playlists/hls/6a28e00b-5d9f-4ce3-80dd-d8294c0fff60/625779e2-ce37-4c90-9218-b448cea7ddf3-master.m3u8https://video.igem.org/videos/embed/e7jQExBBT5k3TVj9re1Res12005872020-09-24T17:55:13.399ZFranceTherapeuticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/vD2ynHGb59jZwERC5hKTBohttps://video.igem.org/lazy-static/thumbnails/24353ac7-e6e7-4855-ab61-318a4b3b6e95.jpgIISER-Pune-India: Anopheles The Half Blood Princess (2020) - Project Promotion [English]Abstract: This is a short introductory video about the prevalence of malaria in the world and why it should be taken seriously. We explore the history of malaria and how it affects our society in the current age. We have proposed possible solutions and the work we are doing in order to achieve the complete eradication of malaria. Wiki Link: https://2020.igem.org/Team:IISER-Pune-India Credits: Script - Akshay Kunnavil, Chinmay Patwardhan, Misaal Bedi, Rupal Gehlot Narration - Chinmay Patwardhan Sound Mixing and Editing - Jezer Jojo Illustrations - Sanjana Vasanth Animation and Direction - Aharna Sarkar Other Links: Twitter - https://twitter.com/igem_iiserpune?lang=en Facebook - https://www.facebook.com/igemiiserpune/ Instagram - https://www.instagram.com/igem_iiserp/?hl=en Website - https://sites.google.com/sac.iiserpune.ac.in/igem-iiserp https://static.igem.org/peertube/streaming-playlists/hls/f004803a-7d17-41e4-92f9-5d1ccca35be8/9ded8010-106b-4a80-b650-507baedae2b9-master.m3u8https://video.igem.org/videos/embed/vD2ynHGb59jZwERC5hKTBo12001142020-09-24T18:00:50.679ZTherapeuticsAsiaIndiaYES2020 Project PromotionsNOhttps://video.igem.org/w/uEnA1UZZpq9UosJpZAWSkKhttps://video.igem.org/lazy-static/thumbnails/730230ee-befc-4458-b7fb-82aedff64ab4.jpgKCL_UK: Renervate (2020) - Project Promotion [Portuguese]We are Reneverate, KCL iGEM 2020, and we are looking to provide a novel treatment for spinal cord injury. Our solution is to design a biocompatible scaffold that will be coated with a mussel foot protein based bioadhesive. This will provide the environment and support the neurons in the spinal cord needed to grow in the lesioned area, and restore function in the spinal cord. Wiki link: https://2020.igem.org/Team:KCL_UK Credits Writer Remy Tran Morgan Zvevdov Abigail Conner Liyamu Ma Animation Liyamu Ma Storyboard artist Morgan Zvevdov Abigail Conner Shams Almusawi Liyamu Ma Remy Tran Sonya Panchenko Stephanie Avraamides Jasmin Werner Harsh Burmia Narrator English - Luke Bateman Mandarin - Liyamu Ma Korean - Zoe Khaw Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Subtitles English - Luke Bateman Chinese - Liyamu Ma Korean - Linda Ryou Portuguese - Abigail Conner Arabic - Shams Almusawi Russian - Sonya Panchenko Bulgarian - Morgan Zvevdov Polish - Mateusz Gerszberg Spanish - Gonzalo Leon Italian - Ilaria Francescon French - Gonzalo Leon Audio Liyamu Ma Luke Bateman Music Royalty Free Music from Bensound Sound Effects Apple iMovie sound effects library Instagram: https://www.instagram.com/igem_kcl/?hl=en Facebook: https://www.facebook.com/igemkcl/ Twitter: https://twitter.com/KCL_iGEM20 https://static.igem.org/peertube/streaming-playlists/hls/e81b72e9-c8a5-429b-8450-33c11405b571/fe689c71-c4d4-4c26-8727-c7e815345326-master.m3u8https://video.igem.org/videos/embed/uEnA1UZZpq9UosJpZAWSkK118042020-09-24T18:10:53.421ZUnitedKingdomEuropeTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/1eTMTFCPtxMs1rmqpYM7yahttps://video.igem.org/lazy-static/thumbnails/6aa15072-1dbc-43a8-9830-ff6109969a87.jpgNYMU-Taipei: Off the crown (2020) - Project Promotion [English]Abstract: The COVID-19 epidemic has greatly impacted the world, and the virus’s fast transmission is rather concerning. Focusing on virus transmission, our team has designed and engineered gene constructs that can be used to develop various practical application products. When the SARS-CoV-2 binds with our construct, the virus’s spike protein would become inactivated, which would then lower the chance of infection. We have also developed a detection product that can fast detect virus presence. Wiki link: https://2020.igem.org/Team:NYMU-Taipei Credits: Wet lab: Yen-Hsun Huang, Tao-Wei Chang, Chun-Yi Wang, Jo-An Hsiung, You-Cheng Lee, Yu-Te Lan, You-Sheng Huang, Yu-Fan Lin Dry lab: Yu-Chuan Yang, Yu-Hao Chen, Jia-Yin Chen, Yi-Lin Liao Human practice: Hsin-Pei Yang, Chieh-Yun Peng, Bo-Han Li Advisor:Yi-Lin Liao, Bo-Han Li Professor: Chuan-Hsiung Chang, Ching-Fen Changhttps://static.igem.org/peertube/streaming-playlists/hls/01f09624-0175-4c0e-80c6-783c10ecdd09/e5f3ab96-8686-49aa-a3e0-dbe56c4908e3-master.m3u8https://video.igem.org/videos/embed/1eTMTFCPtxMs1rmqpYM7ya1200342020-09-24T18:29:55.468ZTaiwanNewApplicationAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/sgFSpZvqWxH4KiQ48EdRjvhttps://video.igem.org/lazy-static/thumbnails/beb6c6e8-1acd-40ae-9ca9-2da94eaa6727.jpgUGent_Belgium: Vsycle (2020) - Project Promotion [English]Water scarcity is becoming a bigger problem that will affect every organism on this planet. Even in Belgium, we experience problems due to drought as a consequence of climate change. With team Vsycle, we aim to solve this problem with developing an ecological way of doing cloud seeding. Our project story is presented in our promotion video. https://2020.igem.org/Team:UGent_Belgium Cameraman: Waldo Vandermeiren; Editor: Mattijs Peeters; Director: Lieven De Brauwer; Team Members: Bram Spanoghe, Brent Vanvyaene, Laure Craeye, Marvi van Tongeren, Shauny Van Hoye https://twitter.com/igem_ghent https://www.instagram.com/igemugent2020/ https://www.facebook.com/iGEMUGent2020/https://static.igem.org/peertube/streaming-playlists/hls/d4be54fc-7dc2-4076-bc9a-403485028775/59785de1-d1f3-4bc9-8852-ede5077d7363-master.m3u8https://video.igem.org/videos/embed/sgFSpZvqWxH4KiQ48EdRjv1200752020-09-24T18:51:00.729ZBelgiumEnvironmentEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/cC6KvQRp2ecpyF6CXRdx3Thttps://video.igem.org/lazy-static/thumbnails/65f3ad1c-9903-4719-b031-7d88a393b565.jpgLund: Protecto (2020) - Project Promotion [English]A lo-fi, silent parody commercial or meme commercial. A boy gets his potato lunch ruined by a potato pathogen and decides to take revenge with the help of his iGEM team. The video aims to get the viewer in a relaxed and open state of mind for when they visit our website. Created by iGEM Lund 2020. https://2020.igem.org/Team:Lund Credits: Actors: Mattias Akke, Robert Skoglund, Emelie Jansson, Ruban Cornelius Singarayar, Chinnu Ann Jaison, Simon Enbom Recordings: Amr Ghazal, Robert Skoglund, Simon Enbom, Emelie Jansson, Chinnu Ann Jaison Script: Mattias Akke & Simon Enbom Editing: Simon Enbom Person in boat: Isak Ingerholt Royalty free music obtained from http://www.bensound.com/royalty-free-music Track names: High Octane, Epic, Energy https://static.igem.org/peertube/streaming-playlists/hls/5e1ed83e-19c3-4e8a-a6ca-8bb4aa1197d3/bc9c5278-3bba-4c89-9bce-502eb5984e6a-master.m3u8https://video.igem.org/videos/embed/cC6KvQRp2ecpyF6CXRdx3T11801122020-09-24T18:46:34.039ZEnvironmentEuropeSwedenYES2020 Project PromotionsNOhttps://video.igem.org/w/aHkwCis6jT7BdscBkrHhYFhttps://video.igem.org/lazy-static/thumbnails/227ba265-42de-430a-975b-a2901c410aec.jpgCU-Boulder: Engineering Self-Fertilizing Plants (2020) - Project Promotion [English]Abstract: World crop demand has increased with rising population and thus the need for synthetic ammonia has also increased. The process and deployment of synthetic fertilizer is harmful to the environment. Our goal is to create a self-fertilizing plant by introducing nitrogenase attached to superoxide dismutase into the plant. The superoxide dismutase will theoretically lower the probability of radical oxygen hitting the active site of nitrogenase and damaging it. Wiki Link: https://2020.igem.org/Team:CU-Boulder Credits: Primary PI - Brian DeDecker Secondary PI - Chris Myers Instructor - Jet Mante Team (Students) -Mckayla Vlasity -Lauren Alexis Vanhousen -Aloha Churchill -Adrianna Lee -Sydney Russhttps://static.igem.org/peertube/streaming-playlists/hls/4ea7c6ef-33ba-4742-99bd-b11f23927d2f/5cef3b0e-917e-4ab4-8199-3cda3cb69f60-master.m3u8https://video.igem.org/videos/embed/aHkwCis6jT7BdscBkrHhYF1190732020-09-24T18:51:14.045ZEnvironmentNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/thkuF8MqSE2Ew6nXnXEPv5https://video.igem.org/lazy-static/thumbnails/842222b1-cf13-44cf-b9d7-df3b3da46398.jpgDNHS_SanDiego_CA: PreeclampsiRNA (2020) - Project Promotion [English]Abstract: PreeclampsiRNA is a project intended to treat preeclampsia, a pregnancy complication, through RNAi-based therapeutics. Despite its high mortality rate for mother and child, preeclampsia today has no definitive treatment. We aim to develop shRNA sequences to alter the expression of sFLT-1 receptors (sFLT-1 is associated with the pathogenesis of preeclampsia), to be delivered to endothelial cells by lentiviral vectors. Through this approach, we hope to treat preeclampsia inexpensively and effectively. Wiki Link: https://2020.igem.org/Team:DNHS_SanDiego_CA Credits: Video Segments: Flora Yuan Anya Sabhnani Iris Yang Kaavya Raamkumar Aishani Vora Aashi Mittal Yajat Yadav Saurav Nagpal Hannah Chen Anusri Thokachichu iGEM (intro) Voiceover: Flora Yuan Editing: Aashi Mittal Music: Ketsa ("Fallen Stars") Made using Animaker Animation Software Youtube Channel: https://www.youtube.com/channel/UCCMwS1IfPGBsboE5AHGSO5g Instagram: @delnorteigem (https://www.instagram.com/dnhsigem/)https://static.igem.org/peertube/streaming-playlists/hls/dceea871-bd9e-4060-89d0-539f05526bf2/2acb658a-b6a8-4992-867d-46ea8de25412-master.m3u8https://video.igem.org/videos/embed/thkuF8MqSE2Ew6nXnXEPv51180562020-09-24T20:09:20.141ZNorthAmericaUnitedStatesHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/v3LFUehdwDYVLge41XPcrYhttps://video.igem.org/lazy-static/thumbnails/c4dd12ce-f200-4d21-b2e9-8f990e94cc27.jpgChalmers-Gothenburg: No Time to Waste (2020) - Project Promotion [English]Abstract: As of today, textile recycling occurs in a far too small extent. Our targeted issue is that Elastane is added to the fibers, which oftentimes is cotton, to make it stretchy. What we want to do is to engineer an E.coli bacteria to make it degrade elastane fibers. By degrading elastane, cotton is freed which makes it more accessible for recycling. This is urgent, and we have No Time to Waste. Wiki Link: https://2020.igem.org/Team:Chalmers-Gothenburg Credits: Promotion Video for the project No Time to Waste by Albin Ekborg Ellen Arnholm Sigrid Tjernberg Niklas Bengtsson Chirag Jain Leticia Castillon Yuika Matsushita Julius Enerås Erik Podda Grahn Mathilda Johansson. Special thanks to Simon Aglund for helping with the editing of this video.https://static.igem.org/peertube/streaming-playlists/hls/eb3c0c71-1d88-4340-a225-ffebf894f876/ae8886af-ac78-407b-8c97-efc682f113a9-master.m3u8https://video.igem.org/videos/embed/v3LFUehdwDYVLge41XPcrY12001322020-09-24T19:45:59.981ZEnvironmentSwedenEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/ivvuqG3ns8HKS7Qc8ouw7yhttps://video.igem.org/lazy-static/thumbnails/bd43b0cc-26d9-4952-9e39-8b97a25b3b5c.jpgMoscow-Russia: Genomus: Genetic Diseases Prevention System (2020) - Project Promotion [Russian]Autosomal-recessive diseases, such as cystic fibrosis, phenylketonuria, galactosemia and sensorineural hearing loss affect millions of people worldwide. There is no widely-available treatment for these diseases yet. For this reason, our team developed Genomus — a preconceptional screening system which is capable of significantly reducing the amount of such mutations in the human population. Genomus allows to compare genetic data with your partner and get recommendations for pregnancy planning. https://2020.igem.org/Team:Moscow-Russia Music (CC by 3.0, The Reckoning — Aerohead, Phoenix — Lahar, Baby’s Cry — freesound.org/s/58178) Droplet counter (CCmod, mixkit.co/) instagram.com/igem_rsmu https://static.igem.org/peertube/streaming-playlists/hls/8dca19b8-4ec0-4f9f-b5bb-1e693b5f5994/42a800fe-d2dc-4469-aadf-f9f113780335-master.m3u8https://video.igem.org/videos/embed/ivvuqG3ns8HKS7Qc8ouw7y1180152020-09-24T20:23:09.250ZEuropeRussianFederationDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/6J3Qp1BvEMQ5QEpWpZAfb6https://video.igem.org/lazy-static/thumbnails/56e7eb2a-0385-4a6e-8e47-51c0fd0f2f00.jpgAFCM-Egypt: SynBio-based Vaccine for Breast Cancer (2020) - Project Promotion [English]AFCM-Egypt is iGEM’s longest standing African team. This year we’re targeting triple-negative breast cancer by designing a SynBio-based vaccine. Our design carries carefully selected neoepitopes and linkers and relies on the self-replicating abilities of RNA-replicons. The vaccine is expected to be sequestered by antigen-presenting cells eventually leading to the mounting of a highly specific and effective immune response against breast cancer cells. Our promotion video briefly touches on our project idea and human practices. Wiki link: https://2020.igem.org/Team:AFCM-Egypt Credits: Special thanks to: Dr. Maha Nour Prof. Wagida Anwar In order of appearance: Mohamed Gamal Rashwan Seif Wahba Ahmed Gamal Mattar Yasser ElBedewy Video editing by: Yasser ElBedewy Royalty-free music from: www.bensound.com Follow us on facebook: fb.me/iGEM.AFCM.Egypt Follow us on instagram: https://www.instagram.com/igem.afcm.egypt/https://static.igem.org/peertube/streaming-playlists/hls/2e5cadac-c18d-4a54-a998-011c9754d681/b1badf65-9ffe-4ba9-a5ca-13cf58551e82-master.m3u8https://video.igem.org/videos/embed/6J3Qp1BvEMQ5QEpWpZAfb611906702020-09-24T22:01:21.027ZTherapeuticsEgyptAfricaYES2020 Project PromotionsNOhttps://video.igem.org/w/3PNZwp6hFRoneADN9gE9SFhttps://video.igem.org/lazy-static/thumbnails/0776b6cd-0677-43e6-8ee1-b13cf9784f06.jpgULaval: aSAP (2020) - Project Promotion [French]Maple syrup has a great cultural and economic importance for Canada. However, several issues can lower the quality of the final product. One of these problems is ropy maple syrup, which has a very high viscosity, is not marketable, and damages equipment, which results in important economic losses, particularly for smaller producers. aSAP, by team iGEM ULaval 2020, will aim to develop an enzymatic treatment to turn ropy maple syrup into a potentially marketable product. Wiki: https://2020.igem.org/Team:ULaval Credits: Narrator: Catherine Gravel Ropy: Emilie Alexander Happy/ULaval team: Marianne Côté Maple producers: Benjamin Ouellet Storyboard: Olivier Lavoie Camera and editing: Steve Charette Supporting staff: Louis-Jacques Ruel Benjamin Ouellet Angel Cisneros Music: "Maple Leaf Rag" by Kevin MacLeod and Scott Joplin (royalty-free music) Facebook: https://www.facebook.com/equipeiGEMULaval Twitter: https://twitter.com/IUlaval Instagram: igem_ulaval https://static.igem.org/peertube/streaming-playlists/hls/16df31b9-3970-4cc6-9140-5d7ff243537b/efa3987f-1809-4a04-b2cc-b6a28827cab4-master.m3u8https://video.igem.org/videos/embed/3PNZwp6hFRoneADN9gE9SF1110882020-09-24T22:17:49.710ZFood&NutritionCanadaNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/diEgy7qAB7AfJNFxJDsjYbhttps://video.igem.org/lazy-static/thumbnails/27c8855f-953f-40a5-9b38-bd2a7d193076.jpgULaval: aSAP (2020) - Project Promotion [English]Maple syrup has a great cultural and economic importance for Canada. However, several issues can lower the quality of the final product. One of these problems is ropy maple syrup, which has a very high viscosity, is not marketable, and damages equipment, which results in important economic losses, particularly for smaller producers. aSAP, by team iGEM ULaval 2020, will aim to develop an enzymatic treatment to turn ropy maple syrup into a potentially marketable product. Wiki: https://2020.igem.org/Team:ULaval Credits: Narrator: Emilie Alexander Ropy: Emilie Alexander Happy/ULaval team: Marianne Côté Maple producers: Benjamin Ouellet Storyboard: Olivier Lavoie Camera and editing: Steve Charette Supporting staff: Louis-Jacques Ruel Benjamin Ouellet Angel Cisneros Music: "Maple Leaf Rag" by Kevin MacLeod and Scott Joplin (royalty-free music) Facebook: https://www.facebook.com/equipeiGEMULaval Twitter: https://twitter.com/IUlaval Instagram: igem_ulaval https://static.igem.org/peertube/streaming-playlists/hls/63a4e440-3c7a-4478-a093-5bd69a83c622/a0c5bdac-2f47-4336-a23d-e280f8bf8dc2-master.m3u8https://video.igem.org/videos/embed/diEgy7qAB7AfJNFxJDsjYb11301512020-09-24T22:26:04.152ZNorthAmericaFood&NutritionCanadaYES2020 Project PromotionsNOhttps://video.igem.org/w/hBtjWDLijPUkgY7unTN8p2https://video.igem.org/lazy-static/thumbnails/6fee5978-1ade-4a9c-b4a6-d76c49239e2f.jpgGO_Paris-Saclay: HuGenesS (2020) - Project Promotion [English]Hello, we are the Team GO Paris-Saclay from Paris-Saclay University. Our project is based on the concept of overlapping genes. Thanks to the CAMEOS software we can have one stretch of DNA encoding two genes simultaneously in different reading frames. The advantages of our project are : biocontainment and increased stability of the gene of interest by interlacing it with an essential gene as well as the ability to encode more information within the same length of DNA. Hugs from Paris, The 2020 iGEM GOPS Team. Our team wiki page: https://2020.igem.org/Team:GO_Paris-Saclay Video credits: Producer & Editor - Godefroy Glaude Co-producer - Mathieu Nairabeze Clémentine Sejotte Script producer - Ines yousfi Clémentine Sejotte CO-script producer - Ibrahim soumana Casting - Alice Caron Baptiste Ortheau Delphine Polvé Florent Poubanne A special thank for: Noah Heier CCOF association Song use for this video: Verve - A-group Lilac - slashh Follow us on other networks: Linked: https://www.linkedin.com/company/igem-go-paris-saclay1 Facebook: https://www.facebook.com/iGEMParisSaclay/ Instagram: https://instagram.com/igemgoparissaclay?igshid=1uvmoi3xrhc4p https://static.igem.org/peertube/streaming-playlists/hls/86861753-9ece-4160-8480-ab4a8fbd7cb3/7adbf32b-17de-4a70-9d89-b9a9357913a5-master.m3u8https://video.igem.org/videos/embed/hBtjWDLijPUkgY7unTN8p212001462020-09-24T22:33:14.929ZInformationProcessingFranceEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/foMFFythAjZjG1FBZh3Sjyhttps://video.igem.org/lazy-static/thumbnails/5e2e390a-dc60-41d5-a545-06a78471b726.jpgSCUT_China: LyDT phage (2020) - Project Promotion [English]The threat of antibiotic-resistant bacterial pathogens causing drug-resistance infection and the escalating health, social and economic consequences are now increasingly visible on a global scale. The effectiveness of antibiotics is declining, We need new measures to fight bacteria, so we construct a lysis-deficient with toxin phage （LyDT S1）to inhibit bacterial growth without release of endotoxins through lysis, Want to see how it works and what can it do? Link below to visit our Wiki! https://2020.igem.org/Team:SCUT_China Credits: PI: YanruiYe; Copywriting: Jinming Lei; Video making: Xiaoxuan Long, Shiyuan Wei, Wencui Ma; Post-production: Chenfeng He; Thanks to Youtuber “Biolution” for the video material(T4 Phage attacking E. coli); Thanks to BBC News and XINHUA News for video materials. Thanks to Dr. Marco Pistolozzi for rivsion of the copywriting. Thanks to Author Yangyijun Guo, Chandradhish Ghosh and Lesa J. Beamer for the references.https://static.igem.org/peertube/streaming-playlists/hls/748e7542-e769-4252-911b-5d57c4c7df6c/cc2468ab-ff16-4260-836d-071c679c6b8b-master.m3u8https://video.igem.org/videos/embed/foMFFythAjZjG1FBZh3Sjy1200322020-09-25T00:16:14.361ZTherapeuticsChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/aKZ5yJq4jpqdkjQd4Me7e8https://video.igem.org/lazy-static/thumbnails/54b1df11-cc88-45cf-a22f-dc51b80955a6.jpgRochester: Endometriosis (2020) - Project Promotion [English]Despite years of doctors appointments and searching for answers, Edie is unable to figure out why she experiences intense pain, heavy periods, and infertility. This is the story of 1 in 10 women, and Team UteRus is creating the tools to rewrite the narrative. https://2020.igem.org/Team:Rochesterhttps://static.igem.org/peertube/streaming-playlists/hls/4f0667f2-9d56-4ecd-a8d1-1f5ef5091589/0d2c914d-c480-41bc-8f19-707a7e2f561f-master.m3u8https://video.igem.org/videos/embed/aKZ5yJq4jpqdkjQd4Me7e81190862020-09-25T03:42:05.595ZNorthAmericaDiagnosticsUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/63ypuMW6qEsDf1KU9cF1AEhttps://video.igem.org/lazy-static/thumbnails/707e3b0a-c198-45bd-881c-078996b36d0f.jpgCornell: Lumicure (2020) - Project Promotion [English]Abstract: Lumicure is a bacterial therapy and monitoring system for metastatic breast cancer. Our system aims to locate breast cancer metastasis early and help target cancer therapy. Tumors are immune-privileged areas, and are naturally targeted by engineered bacteria like those of Lumicure, with the help of a cancer-specific kill switch. Our engineered E. coli produce the therapeutic trichosanthin, which is cytotoxic to cancer cells. Lumicure’s E. coli also fluoresce so that our fluorescent reader can detect and locate tumor metastases non-invasively. Wiki Link: https://2020.igem.org/Team:Cornell Credits: - Script Writers: Lucas Evans, Karen Zhan - Animators: Lucas Evans, Karen Zhan, Sophia Windemuth - Storyboards by: Karen Zhan, Lucas Evans, Sophia Windemuth, Swasti Shree, Emma Kranich - Video Editor: Sophia Windemuth - Subtitles: Sophia Windemuth (English), Deniz Sinar (Turkish) Other links: - Instagram: @cugem - Website: https://igem.engineering.cornell.edu/https://static.igem.org/peertube/streaming-playlists/hls/28d926b4-f877-40ef-bea6-6acc06a3b922/7a2975d2-72a6-4e7c-8a3b-5740e2a09461-master.m3u8https://video.igem.org/videos/embed/63ypuMW6qEsDf1KU9cF1AE11801502020-09-25T01:58:44.806ZNorthAmericaUnitedStatesTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/omwoaowhnAQ6F2XeawXopYhttps://video.igem.org/lazy-static/thumbnails/d7ca2b43-d70a-471c-9e7f-9b9f9f48bc2c.jpgNEU_CHINA: SARS Detecter (2020) - Project Promotion [Chinese]Abstract: It only takes a shorter time to ensure your safety rapidly. Are you afraid of SARS-CoV-2? Have you ever been unwittingly exposed to SARS-CoV-2? Are you afraid of being in danger? We have designed a new virus detection device to detect the SARS-CoV-2 in the environment, hoping to further ensure the safety of citizens. Wiki Link: **https://2020.igem.org/Team:NEU_CHINA** Credits: Producer --- Hao Ying& Liu Changxiaofeng Director --- Hao Ying Screenwriter ---Hao Ying Photography--- Zheng Peixuan Music ---Zheng Peixuan Later ---Zheng Peixuan& Yuan Kexun Actor---- Ma Mingxue& Liu Changxiaofeng& Zheng Peixuan Field Service ---Wu Yi& Ma Mingxuehttps://static.igem.org/peertube/streaming-playlists/hls/b506a649-3a41-4e0b-81ce-e4cb7ee2cd5e/7ba5b6e5-cea0-4d64-bf1d-a0c343be42bb-master.m3u8https://video.igem.org/videos/embed/omwoaowhnAQ6F2XeawXopY118092020-09-25T02:02:28.578ZDiagnosticsChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/v1CfaQES9pqH8WcQJG6X1Mhttps://video.igem.org/lazy-static/thumbnails/84965e06-e02d-438b-8234-262d34fd04d5.jpgNCKU_Tainan: Eye kNOw (2020) - Project Promotion [English]*Abstract:* The world has been invaded by Glaucoma, an ocular disease that causes irreversible damage to the optic nerve. Amidst the flagging hope, team NCKU Tainan managed to develop Eye kNOw and Eye Screen to fight against the loss of humanity's vision. An ultimate battle between NCKU Tainan and Glaucoma is waged, may the world witness how they prevail against the darkness. *Wiki Link:* https://2020.igem.org/Team:NCKU_Tainan *Credits:* Directed & Produced by iGEM NCKU Tainan Edited by NVCC *Social Media:* Facebook: https://www.facebook.com/igem.ncku Instagram: https://www.instagram.com/igemncku/ I've gotta PhD: https://www.facebook.com/IvegottaPhD Spotify Podcasts: https://open.spotify.com/show/7cufNFIEmIpokVZAEE1gZ7 Apple Podcasts: https://podcasts.apple.com/tw/podcast/the-something-podcast/id1530408731https://static.igem.org/peertube/streaming-playlists/hls/eaef5b84-2f7e-4ab7-9ef4-f85422194bf1/38dbbab9-8bad-4245-b8cf-9c484b815b93-master.m3u8https://video.igem.org/videos/embed/v1CfaQES9pqH8WcQJG6X1M12002022020-10-16T12:44:35.761ZTaiwanTherapeuticsAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/sqVGxLBBvdbjDZVwVGkCUjhttps://video.igem.org/lazy-static/thumbnails/dce0f42d-84c2-4c5b-89f7-6756cfe64d45.jpgUSAFA: D.R.O.P. (2020) - Project Promotion [English]Welcome to the USAFA project for iGEM 2020! This year our project is called D.R.O.P. which stands for "Detect, Remove, Obliterate, PFAS." We are trying to find an effective biological approach to the detection and degradation of PFAS. As you will see in the video, PFAS is not only extremely toxic to the environment but also humans. We cannot wait to share our findings at the 2020 iGEM jamboree!! Wiki Link: 2020.igem.org/Team:USAFA Credits: First interview: Chris Jeon, Senior at USAFA Second Interview: Peter Lochmaier, Senior at USAFA Third Interview: Jackson Harris, Senior at USAFA, USAFA iGEM Team Lead Other participants in the video: Analise Holland, Maddie Reicher, Twee Pham, Alissa Till, Megan Doherty, Brian Swicegood, Zack Beatty, Conley Walters, Olivia Orahood, Eamon McHugh Producer: Eamon McHugh, Junior at USAFA iGEM Instructors: Dr. J.J. Steel, Major Erin Almand, Captain John Sitko, Dr. Arment Instagram: @igem_usafa https://static.igem.org/peertube/streaming-playlists/hls/d6088c83-bfbe-4baa-a877-60e4e1681582/3a99e3ce-271d-4503-bec5-c806fb26f900-master.m3u8https://video.igem.org/videos/embed/sqVGxLBBvdbjDZVwVGkCUj1150452020-09-25T02:21:42.159ZNorthAmericaUnitedStatesEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/k9bbebajMuoF7ajDjfVgsuhttps://video.igem.org/lazy-static/thumbnails/a9f427a2-0d05-4f75-8d95-6671ae51b31f.jpgAustin_UTexas: PhastPhage (2020) - Project Promotion [English]Abstract: To combat the problem of bacterial water contamination, which leads to unsafe drinking water globally, the University of Texas at Austin iGEM team is using modeling software to develop a fast and novel way of utilizing bacteriophages to detect E.Coli in water. Through engineering a faster phage that produces a reporter protein when infecting E.Coli, our project may be a cheaper and more efficient alternative to current methods of bacterial water detection. Wiki Link: https://2020.igem.org/Team:Austin_UTexas Credits: Antara Gupta and Kaitlin Shinhttps://static.igem.org/peertube/streaming-playlists/hls/9b01db28-76b8-4a09-93d1-1c28aae126c4/d4753aae-2bcd-4e3a-a765-4ffcfa337d13-master.m3u8https://video.igem.org/videos/embed/k9bbebajMuoF7ajDjfVgsu11801572020-09-25T02:10:46.828ZDiagnosticsUnitedStatesNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/uUgJouuR1pvTtMBqnfTkm4https://video.igem.org/lazy-static/thumbnails/921e18a0-30d5-41e9-b8a1-1e0ac16c4d6b.jpgStuttgart: Lac Man (2020) - Project Promotion [English]Abstract: A large amount of pharmaceuticals enter the environment through wastewater, causing permanent damage to the ecosystem. For this reason, we are developing Lac-Man – an effective water filter, which is specialized on the degradation of micropollutants such as diclofenac from wastewater. Therefore, laccases are immobilized within a mesoporous silica foam in order to increase their longevity. , Wiki: http://2020.igem.org/Team:Stuttgart, Credits: Christopher Adelmann (video production and idea), Helena Nowack (video idea and text), Carol Hannah (narrator), Smashicons (image), Freepik (images), Website: https://igem.hg.stuvus.uni-stuttgart.de, Instagram: https://www.instagram.com/igem_stuttgart/https://static.igem.org/peertube/streaming-playlists/hls/ea0c40c3-948f-4e75-8e1b-76fe75bfa5af/9c82bcfd-0611-4a19-9bec-16d2b4d8db29-master.m3u8https://video.igem.org/videos/embed/uUgJouuR1pvTtMBqnfTkm41020702020-09-25T02:55:35.083ZEnvironmentEuropeGermanyYES2020 Project PromotionsNOhttps://video.igem.org/w/rT8Mk2wX72UhnEEoHn9Kqphttps://video.igem.org/lazy-static/thumbnails/4c66e328-a4cb-4f32-b9af-c0556ebe63fe.jpgNJU-China: LEL (2020) - Project Promotion [English]Abstract: Hello, we are 2020 iGEM team NJU-China! And our project is to design a L (liver) E (exosome) L (lung) system to treat non-small cell lung cancer. How can the exosome airships arrive and kill lung cancer cells? Can we form a connection between the liver and the lung? Watch our video and you will get inspiration for cancer treatment. Wiki Link: https://2020.igem.org/Team:NJU-China Credits: Mingkai Wu, Yujie Li, Chenyu Tao, Jinkun Fan, Yiting Wei, Zihan Yu Other links: contact us at: 1262718478@qq.comhttps://static.igem.org/peertube/streaming-playlists/hls/d19831bd-ae68-4ac1-9fed-276876ff4543/1f8c16bb-c198-4104-b83c-118e55f6f9d1-master.m3u8https://video.igem.org/videos/embed/rT8Mk2wX72UhnEEoHn9Kqp1200302020-09-25T02:22:24.944ZChinaAsiaTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/9o5YUMKri5P4LKCDA4iSF9https://video.igem.org/lazy-static/thumbnails/ebec1102-e9d6-4304-9cdd-d6a0057c30f2.jpgUFlorida: Aquatic Phosphorous Detection Using SCRIBE (2020) - Project Promotion [English]Abstract: In 2020, Team Florida has set out to develop a biosensor that can detect the presence of phosphorous in water. Our biosensor will contain a mutation, inserted by the SCRIBE system, that confers antibiotic resistance depending on the concentration of phosphorous in the tested water. With this development, Team Florida hopes to detect and prevent instances of Harmful Algal Blooms (HABs) that commonly ravage our coastal areas. Wiki Link: https://2020.igem.org/Team:UFlorida Credits: Videography: Seth Yurchisin Voiceover: Celeste Wilson Script: Celeste Wilson Shivani Doshi Danielle DuPuis Ryanne Thewell Creative Commons Media Authors: NOAA JVH Marketing Royalty Free-Videos for Content Creators Tom Fisk Natalea Kelly Lacy Ricardo Mangual Pressmaster Edward Jenner Lukasz Radziejewski Ricardo Esquivel Corey Sitkowski Jess Vide Instagram: https://www.instagram.com/uf.igem/https://static.igem.org/peertube/streaming-playlists/hls/43de8ac0-77f8-4cf3-bcca-bd899ce5c53e/af4acccc-98e7-42d4-a9a1-1323015b86cd-master.m3u8https://video.igem.org/videos/embed/9o5YUMKri5P4LKCDA4iSF91100182020-09-25T03:28:58.975ZEnvironmentUnitedStatesNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/j1puXmZiMch7yBfpjKmu6ohttps://video.igem.org/lazy-static/thumbnails/3793a2e0-a961-4e28-b2e0-d5c0b8f24e16.jpgWorldshaper-Nanjing: Turning Waste Grains Into Biodiesel (2020) - Project Promotion [English]Abstract: We, Worldshaper Nanjing, designed a machine that can transfer substandard grains into biodiesel. We use Yarrowia lipolytica, a kind of oleaginous yeast, as the genetic machine. We introduce the α-amylase and glucoamylase genes of Aspergillus niger into Yarrowia lipolytica to improve its ability to degrade starch. This machine can help break down useless stale grain and provide more environmental-friendly fuel. Wiki Link: **https://2020.igem.org/Team:Worldshaper-Nanjing** Credits: *Consultant: Worldshaper-Nanjing Director: Zhenhao Feng Video Shooting: Zhenhao Feng Film Editing: Zhenhao Feng Script translation: Zhenhao Feng, Xiyu Huang, Ruifan Cao Dubbing: Zhenhao Feng Actors and actresses: Yiheng Yao, Xiyu Huang, Yang Shi, Yiling Dai, Ruifan Cao, Jianpu Gao* Other links: WeChat：gh_6b60e1936c4a（WorldshaperNJ） Email address: ruyi.shi@worldshaper.cn; 647359290@qq.comhttps://static.igem.org/peertube/streaming-playlists/hls/91d2fa50-303c-41ad-b5cf-a53f44a3c0f8/35953546-2986-4050-ad52-ad020010c8b9-master.m3u8https://video.igem.org/videos/embed/j1puXmZiMch7yBfpjKmu6o1200342020-09-25T02:39:14.153ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/7vxxnZ2YzcTZWq1gGJT68nhttps://video.igem.org/lazy-static/thumbnails/fa62abbb-94e0-4c59-83cd-56dcc69c4c71.jpgNEU_CHINA: SARS detecter (2020) - Project Promotion [English]Abstract: It only takes a shorter time to ensure your safety rapidly. Are you afraid of SARS-CoV-2? Have you ever been unwittingly exposed to SARS-CoV-2? Are you afraid of being in danger? We have designed a new virus detection device to detect the SARS-CoV-2 in the environment, hoping to further ensure the safety of citizens. Wiki Link: **https://2020.igem.org/Team:NEU_CHINA** Credits: Producer --- Hao Ying& Liu Changxiaofeng Director --- Hao Ying Screenwriter ---Hao Ying Photography--- Zheng Peixuan Music ---Zheng Peixuan Later ---Zheng Peixuan& Yuan Kexun Actor---- Ma Mingxue& Liu Changxiaofeng& Zheng Peixuan Field Service ---Wu Yi& Ma Mingxue https://static.igem.org/peertube/streaming-playlists/hls/34b6d6d1-6668-4ef4-951e-0c5c0e013cb7/182a74b8-06ff-44bb-b005-8b5fc815f4f5-master.m3u8https://video.igem.org/videos/embed/7vxxnZ2YzcTZWq1gGJT68n1190472020-09-25T05:02:00.050ZDiagnosticsChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/8DVhhVdxLPwiJmKbi4Ak1khttps://video.igem.org/lazy-static/thumbnails/4ff4e4b8-2865-4387-aaee-e77e9e77ea92.jpgBotchan_Lab_Tokyo: nico-friendly (2020) - Project Promotion [English]Today, nicotine pollution in the environment has become a serious problem. On the other hand, the metabolic pathway of Pseudomonas putida S16 is capable of breaking down nicotine. We utilize this to convert nicotine into 2,5-dihydroxypyridine, a precursor to 5-aminolevulinic acid (5-ALA), which is used in fertilizers and pharmaceuticals. Botchan_Lab_Tokyo create an E. coli that can metabolize nicotine and create a system that keeps nicotine from being released into the environment. Wiki Link https://2020.igem.org/Team:Botchan_Lab_Tokyo Credit Chinatsu Ohmori, Terumi Nakanishi, Ryosuke Nakata, Kotone Ohkubo, Kazuki Maejima Special thanks Asuka Kobayashi HP：https://sites.google.com/view/botchan-lab-tokyo/home Twitter：https://twitter.com/botchanlab Facebook：https://www.facebook.com/botchanlab/Facebook/ instagram：https://www.instagram.com/botchan_lab_tokyo/https://static.igem.org/peertube/streaming-playlists/hls/3dfb535c-34b6-4e5b-bafe-46a954ba47df/76c0b16d-8d00-4e6e-951c-0feb29564e1c-master.m3u8https://video.igem.org/videos/embed/8DVhhVdxLPwiJmKbi4Ak1k1080972020-09-25T03:09:51.577ZEnvironmentJapanAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/d3ks9U3kywgYGJzNgKM6iChttps://video.igem.org/lazy-static/thumbnails/17affd26-be2f-4f0d-b000-6b86c943fef6.jpgBaltimore_BioCrew: Improving Iron Uptake in Synechococcus (2020) - Project Promotion [English]In 1/3 of the world’s oceans, iron concentration limits phytoplankton growth. Iron is required for photosynthesis and is a critical micronutrient for the marine food web. Improved abilities to capture iron could increase phytoplankton populations, resulting in numerous environmental benefits. To this end, we engineered a cyanobacteria to transport iron into cells and reduce it to the bioavailable Fe(II) form. We predict this will promote phytoplankton growth, stabilizing the marine food chain. https://2020.igem.org/Team:Baltimore_BioCrew Produced by Baltimore BioCrew Edited by Nathan Dayie Researcher Heaven Cross Narrator Sam Ferraro Actor #1 Kayla Le Actor #2 Sam Ferraro Artist Shubhan S Bhat Translator Zoe Hsieh Content Creators Kayla Le, Heaven Cross, Angelique Allen, Avipsa Hamal All Stock Video obtained through Creative Commons license from NASAEarthObservatory, INVIVO FOCUS and Frederic G. Speyser, JaduMindTrick, Adrien Jacta, Kelly Lacy, Tom Fisk, Mixkit, and Poultry , Animals and Aqua. Instagram: @bugsslab https://static.igem.org/peertube/streaming-playlists/hls/61812375-c32d-4ff4-bc39-bbd729d4a0ca/6b53e712-fbb4-4ab3-9fd9-4e4683d30019-master.m3u8https://video.igem.org/videos/embed/d3ks9U3kywgYGJzNgKM6iC11903842020-09-25T03:14:14.771ZNorthAmericaUnitedStatesHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/4vCHnzWhHJWVhGKpXBMkCjhttps://video.igem.org/lazy-static/thumbnails/fce241a3-29f8-41ab-b99f-165575a324a1.jpgFCB-UANL: Synbiofoam (2020) - Project Promotion [English]Fluorosurfactants (PFOs) are standard components of firefighting foams but pose an environmental threat. Our goal is to produce an ecofriendly alternative. We propose the use of protein Ranaspumin-2 to substitute PFOs as a foaming agent in firefighting mixtures. Not only will our project aid the environment, but it can reduce production costs of foams, allowing underfunded fire departments to access these tools. https://2020.igem.org/Team:FCB-UANL M.Sc. Heber Miguel Torres Cordero, Daniela Alvarez Robledo, José Alonso Flores Coronado, Alejandro Solis Pacheco, Raúl Acosta Murillo, Samuel Chagas de Assis, Team FCB-UANL, Facultad de Ciencias Biológicas, UANL. Gamoi, David Preisner, Tom Fisk, Magda Ehlers, Daniel, Ruvim Miksanskiy https://www.facebook.com/uanl.igem , https://www.instagram.com/igemuanl/?hl=es-la , https://twitter.com/iGEMUANLhttps://static.igem.org/peertube/streaming-playlists/hls/1c6e9c56-60c9-4943-84cb-95835d52a8be/4065c9e9-1716-45f2-9c1b-cccb50477433-master.m3u8https://video.igem.org/videos/embed/4vCHnzWhHJWVhGKpXBMkCj11601042020-09-25T03:49:57.014ZMexicoEnvironmentLatinAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/wgCzPBT8rhvTtTpL3d7pBXhttps://video.igem.org/lazy-static/thumbnails/7e6fa4a3-400d-4b1b-b4c8-75d5db2d510d.jpgOhioState: Biocontainment Reimagined (2020) - Project Promotion [English]In order for synthetic biology to move from research to real implementation, we need to advance our usage and development of genetic biocontainment. Our project, Biocontainment Reimagined, aims to do just that by providing a central repository for biocontainment systems and information, and by spreading educational media about both biocontainment and synthetic biology as a whole. https://2020.igem.org/Team:OhioState Credits: Megan Rinehart (producer)https://static.igem.org/peertube/streaming-playlists/hls/f520dc8b-3228-4ff7-869c-f8a9a64984d1/7be40280-c281-4e7f-9873-2fab08c58401-master.m3u8https://video.igem.org/videos/embed/wgCzPBT8rhvTtTpL3d7pBX1190822020-09-25T03:33:33.755ZNorthAmericaFoundationalAdvanceUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/eaKKePrhzNiqeH3LznrZyDhttps://video.igem.org/lazy-static/thumbnails/f6650f23-2efe-4393-aa04-8e718051fc91.jpgRUM-UPRM: NO_PROJECT_TITLE (2020) - Project Promotion [English]For 60 decades, the U.S Navy used the island municipality of Vieques, as a bombing range for Military practices. Left behind was an array of contamination originating from the materials used. This has led to a decline in the Island’s biodiversity and has affected the health of its habitants. We propose innovative prototypes to attack two different contaminants. Our hope is to return Vieques to the way it was before it became contaminated. https://static.igem.org/peertube/streaming-playlists/hls/6aa374a3-c6a4-4e3e-81b9-c839d2e26941/ea57025d-4832-4a6d-8245-28db91ffc4b1-master.m3u8https://video.igem.org/videos/embed/eaKKePrhzNiqeH3LznrZyD10901002020-09-25T03:31:58.247ZUnitedStatesLatinAmericaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/g1rY2WUb8uVeVbN8Vd1zwQhttps://video.igem.org/lazy-static/thumbnails/5acd8be3-0dd1-4537-be7b-aac6f7c8bc11.jpgTAS_Taipei: Viral Spiral (2020) - Project Promotion [English]**Title:** Viral Spiral: An Accurate, Fast and Simple Viral Diagnostic Test **Abstract:** TAS_taipei presents Viral Spiral: a quick, safe, accurate home detection kit for influenzas such as influenza A, B, and COVID-19. In this video, how Viral Spiral came to be will be revealed. There will be more specific details as of why Viral Spiral is more convenient when compared to current detection methods using the RTPCR. See the team behind this Viral Spiral!! [Wiki](https://2020.igem.org/Team:TAS_Taipei) | [Presentation](https://video.igem.org/videos/watch/4d58a9ca-677d-485f-9513-0b9e53a358ee) **Credits:** Produced and Edited by: Kelly Yang Cameramen: Kelly Yang, Stella Chen, Rachel Nam On Screen: Wilson Huang, Hannah Hsu, Joyce Ting, Tsuyoshi Misaki, Derek Chen, Tiffany Huang, Ting-Yu Yeh, Justin Yang, Kelly Yang, Matthew Fang, Jimmy Su, Tyler Chen, Vera Chien, Dr. Nicholas Ward, Dr. Jonathan Hsu, Mr. Jude Clapper Animation by: Joyce Ting Music: Once and for All by Ian Post (downloaded from Artlist.io) Sound Effect from freesound.org [Twitter](https://twitter.com/igem_tas) | [Instagram](https://instagram.com/igem_tas) | [Facebook](https://www.facebook.com/IGEMTAS) https://static.igem.org/peertube/streaming-playlists/hls/79891502-dde2-435d-9e8b-153125816640/a5a1a973-406e-4df3-b1df-286ce304e93e-master.m3u8https://video.igem.org/videos/embed/g1rY2WUb8uVeVbN8Vd1zwQ7508862020-09-25T03:41:18.638ZTaiwanAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/kyrbCfn685tZZaVhyzPpeahttps://video.igem.org/lazy-static/thumbnails/ba0bda08-fcb6-4593-9599-636785c45df8.jpgGunnVistaPingry_US: Odigos (2020) - Project Promotion [English]Abstract: CRISPRi is a powerful tool for modulating gene expression in human cells. By designing a gRNA homologous to the target gene of interest, one can achieve targeted knockdown of the specific gene of interest. However, with current methodologies, one has to screen multiple gRNA sequences for efficient targeting while minimizing off-target effects. We present a prediction model for identifying the best gRNA sequence for efficient gene targeting in human cells. Starting with experimental data from knocking down specific genes using several gRNAs in iPS cells, we leverage machine learning to inform better selection of the gRNA. We also look to see how adding additional variables can improve the algorithm. Our tool will be invaluable for designing gene targeting gRNAs and will reveal underlying biochemical principles governing CRISPR efficiency. Wiki link: https://2020.igem.org/Team:GunnVistaPingry_US Credits: Animation, Video Production: Stephanie Muggler Narration: Charuthi Arul Script: Navya Lam, Stephanie Muggler, Dia Dhariwal, Craig Trester, Samuel-David Perli Our email is igem.gvp@gmail.com Phone number: 1(516)978-8507https://static.igem.org/peertube/streaming-playlists/hls/9e64f472-73de-4e06-bf32-1cd5738cc11f/1de69673-a01e-4484-a376-1dc8c9b8c905-master.m3u8https://video.igem.org/videos/embed/kyrbCfn685tZZaVhyzPpea1150452020-09-25T04:18:02.625ZHighSchoolNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/9R5r9CHyMJrLLAajDD4NCehttps://video.igem.org/lazy-static/thumbnails/7c5f1fdb-8fb0-4ea3-9772-0ca0d3020089.jpgShanghai_HS: Phosphorus Detective (2020) - Project Promotion [English]Abstract: This video aims to give people a basic idea of the existing problem about water pollution, especially phosphate pollution, and our product’s ability to solve this problem. The video is suitable for people of any ages from 10 to 60 and is available in two languages which are Chinese and English. It is not only a promotion video of our product but is also a video that brings facts of water pollution to our audiences. Wiki Link: https://2020.igem.org/Team:Shanghai_HS Credits: Script:Eddy Patrick Voice-over: Patrick Eddy Story Board: Jolie Material-making: Jolie Animation: Sakadahttps://static.igem.org/peertube/streaming-playlists/hls/47a3494b-d6ed-4798-bb6c-e24a1c397795/994db943-497f-4eb2-9f4c-e12418de3e42-master.m3u8https://video.igem.org/videos/embed/9R5r9CHyMJrLLAajDD4NCe1200292020-09-25T04:26:22.456ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/vyh5KfBDEksVUWFzgXyUvKhttps://video.igem.org/lazy-static/thumbnails/3338ccdf-98d9-495d-88f3-cb86e94f16b0.jpgWaterloo: REMINE (2020) - Project Promotion [English]Abstract: REMINE is a packed column bioreactor containing metal-binding proteins which remove and recover toxic but valuable heavy metals from electronic manufacturing wastewater. The REMINE system can be customized to target specific metals by increasing the affinity of the proteins for them using molecular dynamics and protein modelling and for any local regulation with process design tools. With REMINE, the electronic industry can continue to grow while reducing its impact on our environment and health. Wiki Link: https://2020.igem.org/Team:Waterloo Credits: Illustrations: Hillary Leung & Jeriann Hsiao Animations: Jeriann Hsiao Editing: Alina Arvisais Voiceover: Jeriann Hsiao Script Writing: Clare Reid, Christian Singh, Jeriann Hsiao Captions (EN): Alina Arvisais Captions (FR): Helen Engelhardt Tile Videos: Ana Fernandez, Joshua Hanneson, Alina Arvisais, Anthony Dang, Braeden MacDougall, Christian Singh, Clare Reid, Helen Engelhardt, Clare Wei, Dylan Perera, James Stapleton, Jeriann Hsiao, Kingsley Wong, Lorenzo Perez, Riley Henderson, Renessa Gomes, Sarah Hardy, Taran Layal, Shiv Naik Music: A New Beginning by Bensound Other links (Optional): Facebook: @WaterlooiGEM Instagram: @waterloo.igem Twitter: @Waterloo_iGEM https://static.igem.org/peertube/streaming-playlists/hls/ef5abb88-bbb0-4a81-96c1-8d5e2a2ca39d/9b885bb5-dd33-4c18-9fbc-0a6d34c2d710-master.m3u8https://video.igem.org/videos/embed/vyh5KfBDEksVUWFzgXyUvK11902252020-09-25T04:27:21.899ZNorthAmericaManufacturingCanadaYES2020 Project PromotionsNOhttps://video.igem.org/w/uzg4TZHYjkJvysxTm8fAxNhttps://video.igem.org/lazy-static/thumbnails/422e9bf4-df7c-46b2-8740-3520b9e4e3e4.jpgIISER-Pune-India: Anopheles The Half Blood Princess (2020) - Project Promotion [Hindi]Abstract: This is a short introductory video about the prevalence of malaria in the world and why it should be taken seriously. We explore the history of malaria and how it affects our society in the current age. We have proposed possible solutions and the work we are doing in order to achieve the complete eradication of malaria. Wiki Link: https://2020.igem.org/Team:IISER-Pune-India Credits: Script - Akshay Kunnavil, Chinmay Patwardhan, Misaal Bedi, Rupal Gehlot Narration - Rupal Gehlot Sound Mixing and Editing - Jezer Jojo Illustrations - Sanjana Vasanth Animation and Direction - Aharna Sarkar Other Links: Twitter - https://twitter.com/igem_iiserpune?lang=en Facebook - https://www.facebook.com/igemiiserpune/ Instagram - https://www.instagram.com/igem_iiserp/?hl=en Website - https://sites.google.com/sac.iiserpune.ac.in/igem-iiserp https://static.igem.org/peertube/streaming-playlists/hls/e764b65d-daa8-435e-acbd-2cfdced7525c/f14629dd-546c-43bb-a548-4599cda70eea-master.m3u8https://video.igem.org/videos/embed/uzg4TZHYjkJvysxTm8fAxN120082020-09-25T04:26:54.049ZAsiaIndiaTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/3kdpJu8iMpUw9oLzdFVQm7https://video.igem.org/lazy-static/thumbnails/a561d220-e9ef-4fff-932b-a0f3cc3d1482.jpgShanghai_city: Atrazine Ranger (2020) - Project Promotion [English]Abstract: You want to have a more comprehensive and vivid understanding of our project? Come and watch our promotion video. In this video, we used simple language and cartoon to present the current situation of the utilizing of atrazine as well as the detriments it caused, and how we use biotechnology methods to solve this problem. Explaining why our project can attract vast variety of viewers, we also mentioned the impact of our project in the video. Wiki Link: http://2020.igem.org/Team:Shanghai_city Credits: Chen Yiwei Wang Ziqian Wu Chengqing Zhu Jiaxianghttps://static.igem.org/peertube/streaming-playlists/hls/12e10e6e-e2ee-4729-b469-e603c83bb0c6/48b502fa-5678-45cd-b424-f6d7893c1362-master.m3u8https://video.igem.org/videos/embed/3kdpJu8iMpUw9oLzdFVQm71170322020-09-25T05:04:43.254ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/meB8ts4VYwVGSTmC6hEGghhttps://video.igem.org/lazy-static/thumbnails/729ca795-6144-4e45-82e6-eccea5884c64.jpgXiamen_city: Scavenger of ROS (2020) - Project Promotion [English]Abstract Still struggling with the physical discomfort and exhaustion of staying up late？The NapTuner team will help you get out of this mess! Our promotion video consists of a sitcom and science illustration. By using straightforward and logical interpretation, we'll help you to get insight of how our product functions and the biotechnological and experimental methods we take to carry out our solution. Click on this Video and embrace a healthier life with us! Wiki Link: https://2020.igem.org/Team:Xiamen_city Credits: Director & Producer: Gao Yicheng Written by: Li Jiahua, Xu Donghai Director of Photography: Gao Yicheng Actors: Liu Tinghe, Ma Rongyu Light & Grip: Li Jiahua Edit: Gary Caihttps://static.igem.org/peertube/streaming-playlists/hls/a3dd1754-7493-410e-b299-60d9587d3226/918e1ebe-0517-4573-9297-1ddc2e9cefd1-master.m3u8https://video.igem.org/videos/embed/meB8ts4VYwVGSTmC6hEGgh1200352020-09-25T05:19:36.911ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/nAmw4SGcg1vtpk93Q3Xfhehttps://video.igem.org/lazy-static/thumbnails/31c11331-87ea-4925-ab3a-2f9c04683a24.jpgNWU-CHINA-A: Revengers To Pathogenic Bacteria (2020) - Project Promotion [English]Abstract: This video contains a brief introduction of our project and team members. The inspiration of the project came from injuries in our daily life. Our team has established a brand new type of band-aid to achieve a better bacteriostatic effect. And we hope to develop more products through this technology in the future, such as medical dressing, facial mask etc. Wiki Link: 2020.igem.org/Team:NWU-CHINA-A Credits Animation producer : Tiancheng Wang Copywriter : Qi Gao, Yu Zhang illustrator : Jinchan Xue, Tiancheng Wang Dubbing Specialist : Yu Zhang Editor: Tiancheng Wang Other Links igem_nwu_a@outlook.com Bilibili: UID:504559990https://static.igem.org/peertube/streaming-playlists/hls/aedbd84e-8f56-4c4e-bcbc-fe3f1be15fdd/6d521e14-72a0-44d9-b0c4-32768a7542f8-master.m3u8https://video.igem.org/videos/embed/nAmw4SGcg1vtpk93Q3Xfhe1200342020-09-25T05:39:47.155ZChinaTherapeuticsAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/nFR8SGNZ6gBt3NRcJnntNjhttps://video.igem.org/lazy-static/thumbnails/ae2e0198-4d7a-480d-9b20-5f0c0463827a.jpgCSU_CHINA: Clean the contamination of Cadmium (2020) - Project Promotion [English]Abstract: Recently, the cadmium-contaminated rice circulating in the market. Long-term intake of cadmium will jeopardize human bodies. To deal with the problem, we utilize engineered Synechocystis as a competent cadmium absorber. Moreover, with blue-ray/antitoxin suicide system, the reformed alga will be appropriately contained. The cadmium can be recycled as the microorganisms will be calcined after absorption. The application of engineered alga will minimize human potential cadmium intake. Wiki Link: https://2020.igem.org/Team:CSU_CHINA Credits: Instructor：Dr.Li jiada; Scripted by：Chen Ziwen，Liao Junxi，Liang Mingyu，Zhou Hao，Zhou Haonan; Shooting Script：Zhou Haonan; Art Directors：Chen Siqi，Lin Shiyu，Wu Yuehan，Xiao Yao; Subtitles by：Liang Mingyu，Chen Xiangyu; Dubbing：Chen Yuelin; Animation：Xiao Yao; Sponsored by：SnapGene，Genscript.https://static.igem.org/peertube/streaming-playlists/hls/afa0332b-45fa-4633-ab92-39ed31e12e62/898b1912-6496-4b94-aac1-7d3ffed0b6c5-master.m3u8https://video.igem.org/videos/embed/nFR8SGNZ6gBt3NRcJnntNj1190812020-09-25T05:40:54.750ZAsiaChinaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/tL7uFJLJWiEVavBRZFzr9bhttps://video.igem.org/lazy-static/thumbnails/e9169120-b259-4172-9c3d-04c9e3229fed.jpgPurdue: cArgo COVID-19 Diagnostic Device (2020) - Project Promotion [English]Abstract: The COVID-19 pandemic has stretched global testing capacity and highlighted the bottleneck of conventional lab-based assays for diagnosis ranging from 1-14 days. Current on-site kits developed have accelerated through the regulatory approval process resulting in false negative rates as high as 33%. In efforts to provide a solution for the need of accurate, non-invasive, rapid, and economical on-site viral diagnostic tests for COVID-19 and other emerging pandemics Purdue iGEM developed cArgo Wiki Link: https://2020.igem.org/Team:Purdue Credits: Videos From Pexels: production ID_4114797, production ID_4157282, production ID_4203743, production ID_4206064, production ID_4235824, production ID_4835653, production ID_4203743 Videos From Pixabay: Quarantine - 34941, Surgical Mask - 34406, Test Tubes - 5451, Mask - 34775 Virus animation URL: https://wearecovert.com/free-covid-19-animations-renders-images/ Google Maps COVID-19 Tracker Animation Music: (No Copyright) Anthem of Inspiration.mp3 Epic Drama Cinematic Trailer (Royalty FreeMusic Licensing).mp3 (Purdue)Madhu Prakash: Script Writing, Visual Animation, and Video Editing (Purdue)Jerome Sendon: CAD Renderings and Animations (Purdue)Dalton Saylor: Narration (OSU)Lindsey Shimoda: iGEM Breaking Down Synthetic Biology Animation Social Media Accounts: Instagram: @purdueigem Facebook: @PurdueiGEM Twitter: @purdueigemhttps://static.igem.org/peertube/streaming-playlists/hls/e0cf78dc-f2a7-4447-9fa1-215ab8db3456/802f10c7-c282-4ae5-bcfb-d46cd0efc54c-master.m3u8https://video.igem.org/videos/embed/tL7uFJLJWiEVavBRZFzr9b1040582020-09-25T06:14:40.924ZUnitedStatesNorthAmericaDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/gktcjTUnGKYTM3eMwijNruhttps://video.igem.org/lazy-static/thumbnails/ae873b73-4113-435f-b38c-06120bb0e1bf.jpgBJ101HS: Artificial Breast Milk (2020) - Project Promotion [English]We want to use the means of synthetic biology to study a breast milk substitute that is closer to the composition of breast milk. The total protein in human milk is mainly divided into two categories, casein and whey protein, of which casein accounts for about 80%. Yeasts are used to express β casein κ casein, lactoferrin, and α lactalbumin. For These proteins make up most of the composition of protein in artificial breast milk. Wiki: https://2020.igem.org/Team:BJ101HS Credit to Yuxiao Chen, Hongfei Zhang, Muqing Zhang, Qiuyun Huang, Andrew Ev Email: beijing101igem@163.comhttps://static.igem.org/peertube/streaming-playlists/hls/7c30f8a1-53dd-4632-80ed-c93ba27b319e/29a288f4-68b7-4889-b2ad-06246b2f8fd1-master.m3u8https://video.igem.org/videos/embed/gktcjTUnGKYTM3eMwijNru11901332020-09-25T06:17:48.427ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/9HqeCvEkCmb7Q84odcATY2https://video.igem.org/lazy-static/thumbnails/07a027e1-6b4f-49ba-8f16-7446d5f9bb38.jpgBUCT: Legolas•Microcystin (2020) - Project Promotion [English]We are the 2020 iGEM team, BUCT. In our project, we will try to deal with a small blue-green microbe and the very dangerous toxins it produces, which doesn’t receive attention it deserves.Mlr gene cluster and Unnatural amino acid systems will be introduced into the cyanophage genome, and the recombinant "natural enemy of algae" will eliminate cyanobacteria and toxins according to our plan. The water in our lakes will be safe again. Wiki Link:https://2020.igem.org/wiki/images/3/38/T--BUCT--Legolas%E2%80%A2Microcystin.mp4 Credits: Vocal: Yiqi Zhao-BUCT, Eeditor: Haosheng Liu-BUCT, Video: Deep Blue Studio, Picture: The Guardian https://static.igem.org/peertube/streaming-playlists/hls/46918a08-9f87-417c-a1cd-968b98104f5d/2920345b-715c-4447-9d68-3f7359b1de77-master.m3u8https://video.igem.org/videos/embed/9HqeCvEkCmb7Q84odcATY211501022020-09-25T07:23:24.715ZEnvironmentAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/tmbM7XKqdmRVg9wpERuNcthttps://video.igem.org/lazy-static/thumbnails/f5c54280-c724-4278-86e1-11de48f78f4e.jpgImperial_College: SOAP Lab (2020) - Project Promotion [English]**Abstract** Two young bench scientists are faced with a difficult day of building up construct libraries and quickly diverge in their approaches to lab work. With the help of SOAP Lab, one of the scientists is able to use the automation equipment without any issues and helps their struggling colleague to finish their experiments in time to win the approval of their brooding PI. **Wiki Link** https://2020.igem.org/Team:Imperial_College **Credits** *ANIMATION AND ILLUSTRATION* - OLIVIA GALLUPOVA - GABRIEL SWALLOW - HIA MING *MUSIC* - GABRIEL SWALLOW (@gabe_musiq) *VOICE* - HENRY BROWN (@rdshdw) *TEAM* - EMMA ALBERTINI - JAMES BAYNE - BENEDICT CARLING - OLIVIA GALLUPOVA - HIA MING - GABRIELLE JOHNSTON - RAGHAV KHANNA - RAYMOND MILES - ELOISE QIU - SCOTT STACEY - GABRIEL SWALLOW - MARIA TORRA - GEORG WACHTER *SUPERVISOR* - PROF. GEOFF BALDWIN **Other Links** - Twitter: https://twitter.com/IGem2020https://static.igem.org/peertube/streaming-playlists/hls/dd7842e8-38be-45d6-8375-594716834601/d1f8d3a3-4c2c-4543-a01a-d3f6dfd8d561-master.m3u8https://video.igem.org/videos/embed/tmbM7XKqdmRVg9wpERuNct12001552020-09-25T06:56:37.132ZSoftwareUnitedKingdomEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/4FD9ZcbYMCH2YdbgALRASghttps://video.igem.org/lazy-static/thumbnails/db6cf037-1219-48f1-959e-197eeeb2b4ee.jpgSJTU-BioX-Shanghai: LUCAS-Locational Unique CAS9 protein (2020) - Project Promotion [English]Abstract：We are iGEM team of Shanghai Jiao Tong University. This year, our project focuses on stepping down the off-target frequency and improving the specificity of CRISPR-Cas9 system. To achieve this goal, we design several gene circuits to report the off-target of dCas9 with fluorescent signals. Meanwhile, we intend to construct a mutation library of dCas9 proteins. Thus, we can use the signals to evaluate the specificity of our evolved dCas9 and conduct further optimization. Wiki Link：https://2020.igem.org/Team:SJTU-BioX-Shanghai Video Credits： Art Director Group/Editors: Mingzhen Tian, Yingquan Yang; Screenwriter/Scriptwriter Group: Bozitao Zhong, Yumeng Zhang; Voiceover/Recording: Xinlan Wen; Subtitle/ Executive Producer: Keyi Li; Creative Consultant Group: Aixuan Zou, Bozitao Zhong, Chenxu Feng, Haotian Zheng, Jiangying Liu, Junyan Li, Keyi Li, Xinlan Wen, Yueting Wu, Yumeng Zhang, Zhen Fang, Ziyao Chen; Craft Service: Dalong Yu, Di Zhu, Feiyang Hong, Ni Wang, Yue He; Associate Producer: Lin He, Gang Ma, Yushu Wang; Special Acknowledgement: Shanghai Jiao Tong University, Bio-X institutes, Shanghai Jiao Tong University, School of Life Sciences and Biotechnology, Shanghai Jiao Tong University; Acknowledgement: Yi Xiao, Rubing Liang, Haixia Jiang, Jian Chen, Tongji_China 2020 iGEM team; Designed With: Adobe After Effects, Adobe Illustrator. Social Media Links： Team email address: sjtuigem@gmail.com Team contacts email address: koyilee@sjtu.edu.cn Twitter account: https://twitter.com/sjtu_igem?s=05 Bilibili account: https://space.bilibili.com/434925109/ Weibo account: https://weibo.com/u/7465788720 Team website: https://igem.bio-x.cn/ https://static.igem.org/peertube/streaming-playlists/hls/1dd4520f-9bef-4760-ad3f-ed9a1f901893/0726a7fe-114a-43be-9759-a3b36ff58a71-master.m3u8https://video.igem.org/videos/embed/4FD9ZcbYMCH2YdbgALRASg11901372020-09-25T08:25:46.052ZFoundationalAdvanceChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/mfiREAn1Bre6fC4nBDNcRZhttps://video.igem.org/lazy-static/thumbnails/71faa6c2-ee4d-4632-9b41-cfad183b971c.jpgUZurich: Plant Immunity based Biosensing (2020) - Project Promotion [English]Microbial pollution is a problem across all borders and populations. Water safety is a crucial topic for global development and there is an omnipresent need for novel and creative methods that establish the quality of a water sample. Our 2020 iGEM UZurich team from Switzerland is approaching the topic by implementing plant immunity receptors into model organisms. Learn more about our vision for biosensing in this video. Wiki Link: http://2020.igem.org/Team:UZurich A big Thank You to Dominic Tinner who, with his experience and knowledge, supported the production of this video. https://dominictinner.pro/ Michelle von Arx embraced the creative aspects of our project and beautifully created our illustrations for this promotion clip. Narration and script have been done by Franka Butzbach. Our Instagram: https://www.instagram.com/igem_uzhhttps://static.igem.org/peertube/streaming-playlists/hls/a3f630b8-8470-4c38-9937-a664519685ff/6f52cede-cab1-49c8-b831-691d5c9e1e93-master.m3u8https://video.igem.org/videos/embed/mfiREAn1Bre6fC4nBDNcRZ11901152020-09-25T08:30:42.702ZNewApplicationSwitzerlandEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/cohf4viPMsMC8E32jTq76yhttps://video.igem.org/lazy-static/thumbnails/4837cca3-7b1f-4626-87f9-ca23a6505484.jpgLethbridge: FriGEM (2020) - Project Promotion [English]Abstract: We are engineering E.coli and potatoes to express antimicrobial peptides (AMPs) as a solution to problems concerning agriculture and human health. Expression of antimicrobial peptides effective against Fusarium would provide a way to control Fusarium infections in potatoes. By expressing AMPs with health benefits in food that is consumed regularly, we can take a preventative approach to disease. We are also engineering potatoes to express BMAP-18, which acts against sleeping sickness. Wiki Link: https://2020.igem.org/Team:Lethbridge Video Credits: Video by Emily Hagens and Reece Martin. Footage from the University of Lethbridge and Dr.Mariana Vetrici. Music from Awakening Dew by Keys of Moon | https://soundcloud.com/keysofmoon Music promoted by https://www.free-stock-music.com Attribution 4.0 International (CC BY 4.0) https://creativecommons.org/licenses/by/4.0/ Other Links: uleth.igem (instagram)https://static.igem.org/peertube/streaming-playlists/hls/5c30e5df-e5ed-42bd-a72c-170c96f7d28a/7779f1d3-0d23-4ca3-9652-9046b24a2d19-master.m3u8https://video.igem.org/videos/embed/cohf4viPMsMC8E32jTq76y920702020-09-25T07:12:45.781ZCanadaFood&NutritionNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/4SJCKyj9cUF5ghd9Apr4Kohttps://video.igem.org/lazy-static/thumbnails/73d7273b-a481-4444-8e56-28fcdcf221c7.jpgBrno_Czech_Republic: CYANOTRAP (2020) - Project Promotion [English]Abstract: In this video, you will learn about the issues caused by cyanobacterial overpopulation in Czech republic and how contact with these microorganisms can impact our health. Moreover, you will meet our hero - Bacillus subtilis. We have worked hard to provide this bacterium with many superpowers. And to wrap things up, you will find out not only how our Bacillus can help us tackle this issue, but also who are the people behind this project. Wiki Link: https://2020.igem.org/Team:Brno_Czech_Republic Credits: Film makers: Jana Česalová, Klára Tvarožková, Lucie Pifková Translator: Klára Quency Odehnalová Intro iGEM: iGEM Logo designer: Klára Tvarožková, Jana Česalová Audio: Jana Česalová, Klára Quency Odehnalová, Lucie Pifková Script: Jana Česalová, Lucie Pifková, Klára Tvarožková Subtitles: Sabina Fronková Technical support: Grandfathers iPad and lamp Mental support: Moms ice cream and coffee Cute support: Barny (dog) Music: Sabina Fronková Tools: Stop Motion Studio, Photoshop Other Links (Optional): https://www.generationmendel.cz/ https://www.instagram.com/generace_mendel/?hl=en https://www.facebook.com/generaceM https://static.igem.org/peertube/streaming-playlists/hls/1f60e0de-5814-4c59-b6bb-5493c67d78d8/bd9243ca-96a1-4d9b-9109-70ad31bed519-master.m3u8https://video.igem.org/videos/embed/4SJCKyj9cUF5ghd9Apr4Ko10802502020-09-25T07:43:00.870ZEuropeCzechRepublicEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/7FhzbJrVRKwXjyGNN4rPNLhttps://video.igem.org/lazy-static/thumbnails/9f080d60-d76f-49e7-8950-9a648f45722b.jpgThessaly: Amalthea (2020) - Project Promotion [English]Abstract: Amalthea is a complete, personalized, modular platform, which enables real time monitoring of the function of gut microbiota for non-invasive diagnosis and tailored treatment. We build the monitoring system, a capsule hosting a bio-electronic interface. Bacteria engineered to detect the molecular footprint of gut microbiota are combined with an electronic module to digitalize and transmit the data. Wiki Link: https://2020.igem.org/Team:Thessaly Credits: Voice Over: Tasos Messis / Ifigenia Daskalaki Principle Investigators: Kalliope Papadopoulou / Ekaterini Moutou Instructor: Constantine Garagounis Team: Foteini Papadaki / Magdalini Koroxenidou / Asteria Tsapadikou / Venetios Michelioudakis / Manolis Stylianakis / Lemonia Apoha / Vasilis Stergiou / Giorgos Mouxtaridhs Advisors: Marios Lange / Nikos Delkis Subtitles: Hlib Bryskin / Manolis Papadakis / Katerina Papadimitropoulou / Konstantinos Elenis / Ioanna Goni / Vrentzou Myrto / Vaggelis Pappas Other links (Optional): https://www.instagram.com/igemthessaly/?hl=el https://www.facebook.com/igemthessaly/ https://static.igem.org/peertube/streaming-playlists/hls/36130d4c-2fc0-4648-ba73-6d37c8cabf8c/bd63ee67-2c92-4069-be4e-4b2a33fa90aa-master.m3u8https://video.igem.org/videos/embed/7FhzbJrVRKwXjyGNN4rPNL11701622020-09-25T09:10:34.616ZFood&NutritionGreeceEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/cXRdCnNcUFpRiWxxJezwo4https://video.igem.org/lazy-static/thumbnails/5af7fb67-694e-4cdf-966a-bc6caad63fe7.jpgDuesseldorf: Mossphate (2020) - Project Promotion [English]We are the 2020 iGEM team from Heinrich-Heine-University Düsseldorf. Our goal is to close the phosphate cycle (especially in agriculture) by modifying a moss to accumulate phosphate from eutrophic wastewater, and afterwards can be dried and used as fertilizer. Our moss is planned to have an increased phosphate accumulation, a polyphosphate kinase to store the phosphate and mechanisms implemented to maximize the phosphate flux towards polyphosphate. Wiki Link: https://2020.igem.org/Team:Duesseldorf Credits: Alexander Zubov, Carsten Wilke, Emily Idahl, Houda Alioui, Laia Segura, Sebastian Kusnik, Vincent Holletzek, Andreas Nakielski & Leonie Reible Instagram : https://www.instagram.com/igem_duesseldorf/https://static.igem.org/peertube/streaming-playlists/hls/60e0c39c-238d-4c9a-82c4-58b99a3067af/d012357b-a057-42c1-aa1a-f2e041353a22-master.m3u8https://video.igem.org/videos/embed/cXRdCnNcUFpRiWxxJezwo412001422020-09-25T07:49:50.848ZEuropeGermanyEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/h9yzzZLUsFhKiBS5bKKtXdhttps://video.igem.org/lazy-static/thumbnails/9258d730-ea75-4c1a-bc89-d270ef46cdaf.jpgNanjing_high_school: Accelerator of Plant Growth (2020) - Project Promotion [English]Abstract: The video has explained the urgent phenomenon about phosphorus fertilizer. Our technology of using Phosphorus solubilizing bacteria hopefully is the best solution with no harm to local environment and cheap cost. Thanks to all the cooperators, instructor, and viewers of the video, we will continue to make better phos for us. Wiki Link: https://2020.igem.org/Team:Nanjing_high_school Credits: Hu Yanrui; Yan Hanwen; Lv Tong; Jiang Zeqing; Xu Zipei; Zhang Youzhi; Xu Pianhong; Zhuang Sihan; Wu Yuhe; Yi Mingyang; Li Pinzheng; Zhi Chenyu; Wang Zeyang; Qian Linkun; Liang Yun; Zhang Zexin; Wen Zekai; Meng Yichen; Liu Yang; Chen Luwei; Sun Ziqi Advisors: Han Zhenggang; Xie Binran; Yao Xiaoqing; Zhang Sihan; Li Hui; Yao Xueliu; Wei Zhong; Yu Ran Contact Us: rephos@126.comhttps://static.igem.org/peertube/streaming-playlists/hls/82c43f0c-9840-49b5-8cfa-964f29e35cf6/a0ffa1ff-9d8d-46d3-8af3-82bcdae136ba-master.m3u8https://video.igem.org/videos/embed/h9yzzZLUsFhKiBS5bKKtXd1190392020-09-25T07:31:34.539ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/4Zrib26RQULLcH6Rng6pkLhttps://video.igem.org/lazy-static/thumbnails/153e1fef-6ea3-4059-91f4-3e06210a44e9.jpgHong_Kong_HKU: EVOLVE (2020) - Project Promotion [English]As the field of Synthetic Biology continues to grow and evolve, the need for sustaining a stable engineered system is more than ever. Therefore, HKU iGEM team 2020 aims to build a gene regulatory network for the ratiometric control of bacterial populations. By drawing inspiration from recombinase-based systems, our team hopes to propose a new solution to combat the issue of microevolution in cellular cultures. https://2020.igem.org/Team:Hong_Kong_HKU Footage credit: Admissions and Academic Liason, the Registry, HKU Music credit: Adventures - A Himitsu You can follow us or seek collaboration through Facebook or Instagram Facebook: https://www.facebook.com/hkuigem2020/ Instagram: https://www.instagram.com/hkuevolve/https://static.igem.org/peertube/streaming-playlists/hls/2050666f-325f-4a58-b7a1-4917120b5d4e/61934a23-c7bd-40b9-9a44-b361eb3c288e-master.m3u8https://video.igem.org/videos/embed/4Zrib26RQULLcH6Rng6pkL1190612020-09-25T07:32:54.403ZAsiaFoundationalAdvanceHongKongYES2020 Project PromotionsNOhttps://video.igem.org/w/jtbwGvTEdo69SxSPfaV88ehttps://video.igem.org/lazy-static/thumbnails/4c9a02d2-4dcc-4f9d-bd61-76a122f93a72.jpgIonis_Paris: BacTail (2020) - Project Promotion [English]Abstract: Team iGEM IONIS Paris 2020 Project Promotion Video for the BacTail project. We are ten 5th Year Engineering students fighting against antimicrobial resistance using synthetic biology. Our innovative and tailor-made system allows to specifically recognize, bind and lyse superbugs which cannot be treated with the existing methods. Together, let’s fight against antimicrobial resistance! Stay tuned for our Project Presentation Video! Wiki Link: https://2020.igem.org/Team:Ionis_Paris Credits: SciFirst (Pixabay), Edward Jenner (Pexels), Pressmaster(Pexels), Polina Tankilevitch (Pexels) and EPTV (microphone), Mona Wonderlick (Music - Free download: bit.ly/saviour-free-download) Other Links: https://www.facebook.com/ionisigem https://www.instagram.com/igem.ionis/ https://www.linkedin.com/company/igem-ionis https://static.igem.org/peertube/streaming-playlists/hls/9590110a-e2b2-44d2-acf0-012f446699f7/ca61ce02-62ce-46c2-855a-970c318c7946-master.m3u8https://video.igem.org/videos/embed/jtbwGvTEdo69SxSPfaV88e11703112020-09-25T07:58:50.681ZTherapeuticsFranceEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/w6Q8WWjynmhzzbeZp8gf7jhttps://video.igem.org/lazy-static/thumbnails/d0423919-a0eb-4987-ad09-5ca1c02c05da.jpgExeter: CalcifEXE (2020) - Project Promotion [English]Exeter iGEM presents CalcifEXE - a novel method of Calcium Carbonate precipitation that aims to be a greener alternative. We are also exploring the idea of applying our bacteria into a 3D Bioprinter that prints calcium carbonate into specific shapes. One possible application is the production of custom coral backbones that can be used to help regrow and repair damaged reefs. We believe CalcifEXE is a gateway to a greener method of calcium carbonate production. Wiki: https://2020.igem.org/Team:Exeter --- Credits --- iGEM Team: Adam Bainbridge Anna Donnan Ariane Goudie Bethan Rimmer Eloise Martin Isabelle Browne Matthew Turk Nina Senna Patric Boardman Velizar Kirkow Video Created by Patric Boardman & Matthew Turk Drone Footage: Jan Eggar Simon Clark Stock Footage courtesy of Videezy --- Social Media --- Facebook: https://www.facebook.com/Exeter-IGEM-2020-112808187141078 Twitter: https://twitter.com/2020_igem Instagram: https://www.instagram.com/exeterigem2020/https://static.igem.org/peertube/streaming-playlists/hls/f3c28b4c-ec8f-4fe5-b01b-59d98332234e/ded1557d-4c0b-4baf-afcb-6ed94f0b343a-master.m3u8https://video.igem.org/videos/embed/w6Q8WWjynmhzzbeZp8gf7j1170822020-09-25T08:10:45.048ZEnvironmentUnitedKingdomEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/iFUBLpqTQTUWSAAbKLi7VGhttps://video.igem.org/lazy-static/thumbnails/7f8fab61-0897-4dab-b467-4aac924a6c71.jpgUESTC-Software: CPD3DS (2020) - Project Promotion [English]Abstract:The iGEM team UESTC-Software creatively proposed CPD (3DS)（classification of protein domains in 3D shape）, We apply the 3D shape of the protein to compare and analyze its domain composition, so that synthetic biologists can directly use the classified and standardized domains for protein design. Based on our project, we have also designed a set of building blocks that are both scientific and interesting.——Probrick! Wiki Link: https://2020.igem.org/Team:UESTC-Software Credits: 1. LIist of team members：（In no particular order） Dong Haoran、Han Jingqi、Wang Bin、Mei Yao、Gao Fan、Mo Nan、Liu Mingkang、Min Zhuochao、Zhou Tao、Yang Zhaochang、Qiao Dan、Xiong Huiyu 2.Adviser：Wang Beibei、Quan Ling 3.Director：Dong Haoran 4.Animator：Han Jingqi 5.Voice actors：Mo Nan、Dong Haoran、Han Jingqi 6.BGM: Blurry Vision - Corbyn Kites 7.Aerial footage:News Center of UESTChttps://static.igem.org/peertube/streaming-playlists/hls/8f3dca58-64b9-41fd-9a38-ae75b4a8b9ca/08efca04-8aab-4a96-98a5-4e9bafe1823b-master.m3u8https://video.igem.org/videos/embed/iFUBLpqTQTUWSAAbKLi7VG1180282020-09-25T08:22:44.946ZAsiaChinaSoftwareYES2020 Project PromotionsNOhttps://video.igem.org/w/ev4Sp4ZJSFk16mPj4qmnAMhttps://video.igem.org/lazy-static/thumbnails/14bb063d-ea69-4e18-a165-1b3b5ba790ca.jpgNottingham: Biotherapeutic to Help Neurodegenerative Diseases (2020) - Project Promotion [English]Our promotional video aims to highlight the way neurodegenerative disease damage the brain and provide the audience with an understanding of why neurodegenerative diseases are a big problem for the World. Our video introduces the members of our team and the biotherapeutic that is centre to our iGEM project this year. https://2020.igem.org/Team:Nottingham Credits: James Birch, Saachi Kaur, Luke Barks, Luke Weir, Eugenia Vuong, Alyssa Sadowski, Kieran Bird, Alistair Cadoo. Music - Sad Piano and Orchestra by Serge Pavkin Music. Videos provided by - Andrew Dempster, Pixabay, Videezy, Videvo. Instagram: https://www.instagram.com/nottinghamigem/?hl=en Twitter: https://twitter.com/nottinghamigem?lang=en YouTube: https://www.youtube.com/channel/UC5dqdvqMilGtQTSeV1WUlfw Facebook: https://www.facebook.com/iGEM-Nottingham-108849850898538/?fref=taghttps://static.igem.org/peertube/streaming-playlists/hls/6d55c197-ab8c-4121-97fa-11ee4ed21d55/a2836d52-5910-46d1-aa82-1a252e4dff32-master.m3u8https://video.igem.org/videos/embed/ev4Sp4ZJSFk16mPj4qmnAM1140892020-09-25T12:34:52.996ZTherapeuticsEuropeUnitedKingdomYES2020 Project PromotionsNOhttps://video.igem.org/w/4z6Ub7zKWonW2enjpMHRrahttps://video.igem.org/lazy-static/thumbnails/7aef62fe-40db-4ddd-8b13-d549992a7e5c.jpgShanghai_high_school: A Rapid BPA Detection Method (2020) - Project Promotion [English]Abstract: Since you may be curious about our project when you first saw the name ER sensor, we have prepared a fun video for you. With the help of cartoons, our video clearly explains the purpose of the sensor, the introduction to the principles, and the prospect of the future development. Click the video and learn more information about our project! Wiki Link: https://2020.igem.org/Team:Shanghai_high_school Credits: He Yutian Zhou Zhu XinCheng Xiang Yang Shuhan Wang Shuhan Wang Nuoya Su Minglei Li Zixin Song Xiaoxian Deng Yefei Jiang Yijia Yuan Peigen Cai Aichen Yuan Chang Zhang Zhiheng Sun Yujie SHAO YUCHEN Yang Jingzhi Fang Rong Yu Fangzheng Bai Yili MA XIAOYU ZHANG XIAOHAN Zhu Yi Menghttps://static.igem.org/peertube/streaming-playlists/hls/1cea989b-70a7-4d94-8ac2-ebee8c5f6b2f/e4023a37-3325-4dc2-be2a-27a6109c714c-master.m3u8https://video.igem.org/videos/embed/4z6Ub7zKWonW2enjpMHRra1180482020-09-25T08:19:46.120ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/9VbqmfV8dCieJroUwVVAs4https://video.igem.org/lazy-static/thumbnails/d67ef4f2-202e-44a5-9f16-2bf3b06054d8.jpgShanghaiTech_China: CESAR (2020) - Project Promotion [English]This year ShanghaiTech_China is committed to addressing antibiotic resistance -- a global problem caused by antibiotic abusing in medicine and breeding industry. Our goal is to give a complete solution that addresses this challenge at both the source and the end: detecting excessive antibiotics in environmental samples, and antibiotic resistance genes in patients’ samples. The former can help inspectors test and govern antibiotic usage, and the latter is designed for doctors to make diagnosis and prescription. Hope you enjoy our video! **https://2020.igem.org/Team:ShanghaiTech_China** *Content: Mingxuan Chi, Yujie Wen. Filming & Editing: Yujie Wen. Caption: Ruiyan Xia. Music: Space Interlude, Glow from Cinematic SFX Six Forty. Team members: Zeyang Zhang, Yijing Cai, Zhiyu Fang, Qinyi Chu, Mengning Luo, Yuxin Song, Ruijie Xiang, Zefang Zhao, Sizhe Gu, Rui Su, Zehua Yin, Haochen Lv, Wenxin Li. With the help of Kaida Zhang, Haitao Yang, Wei Shen and Yi Liu.* https://static.igem.org/peertube/streaming-playlists/hls/4835f355-ddc7-488d-bcff-ed814544d107/ea35893f-2d9b-4949-b190-b2ef5ad1dc19-master.m3u8https://video.igem.org/videos/embed/9VbqmfV8dCieJroUwVVAs412001392020-09-25T08:34:50.842ZNewApplicationAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/3Zgn7QaNnBeC1XmasqKUDMhttps://video.igem.org/lazy-static/thumbnails/a2449d1e-dff4-4bf5-9c9f-db94903fb21c.jpgHKUST: HAGBRIC (2020) - Project Promotion [English]Abstract: Our project involves engineering bacteria (e. coli) to produce recombinant hagfish intermediate filaments (IF) and an accompanying dyeing system as a novel textile material. Native hagfish filaments have incredible strength and elasticity, which makes it a promising substitute for synthetic polymers such as nylon. Through fusion with chromoproteins of different color, we hope to produce a wide variety of colors, and bring our project closer to a viable clothing material. Wiki Link: https://2020.igem.org/Team:HKUST Credits: - Script: - Coral Sun -Tsang Cheuk Hei - Narration: - Vanessa Lee - Jeffrey Hui - Filming: - Cherry Wong - Vanesssa Lee - Sarah Hung - Animation: - Sarah Hung - Editing: - Macy Yuen - Subtitles: - Tsang Cheuk Hei Other links (Optional): https://www.instagram.com/hkustigem2020/https://static.igem.org/peertube/streaming-playlists/hls/18312403-1fb1-49e7-a49d-d792cac70d97/db2a15e7-e9f5-471e-80ee-f490c43e9406-master.m3u8https://video.igem.org/videos/embed/3Zgn7QaNnBeC1XmasqKUDM1140662020-09-25T08:53:49.869ZHongKongManufacturingAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/vwhr4qNnKEsXroA37rrU8Zhttps://video.igem.org/lazy-static/thumbnails/a0b04e1a-5313-4a12-aa51-2b56af43f9dd.jpgAix-Marseille: Make Some Rham-Noise (2020) - Project Promotion [English]**Abstract**: Our goal has been to find a way to make up for the loss of communities due to these green tides by upgrading them! There are many revalorization options for algae but the one that interested us was the production of bioethanol from algal biomass. Thus, our project not only allows us to find an application for algae seen today as a scourge but also this project participates in the ecological transition. **Wiki Link**: **https://2020.igem.org/Team:Aix-Marseille** **Credits**: Video created by Litchi Video : François Reimbold and his team Voice-over : Bill Dewees Team's Logo : Justine Faustino Team Aix-Marseille : Joy Giraud Lucie Rago Boukari Diallo Lucy Jacques-Vaurambon Samuel Carien Maud Miot Laurie Jayet Camille Herrou Clara Husser Elisa Di Lelio Jeanne Preel Said Ibrahim Younes Meskini Nabil Ait Tabassir **Other links** : equipe.igem.amu@gmail.com ; https://www.facebook.com/iGEM.AMU/ ; https://www.instagram.com/igemaixmarseille/?hl=fr ; https://twitter.com/igemteamamu?lang=fr ; https://fr.linkedin.com/in/igem-aix-marseille-a92480161https://static.igem.org/peertube/streaming-playlists/hls/ef1375fa-6bfd-4858-bb68-6f147c6ac0d7/2a12aec3-6129-49c0-867e-afb877f2252b-master.m3u8https://video.igem.org/videos/embed/vwhr4qNnKEsXroA37rrU8Z12005292020-09-25T09:37:53.833ZEnvironmentFranceEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/9VXQzeUMmWd658Z5QBJVtAhttps://video.igem.org/lazy-static/thumbnails/16bb518d-d615-46c6-81ee-7cdccc0b9ccd.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [Chinese]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/4851f0ad-c8e3-4a46-a72f-1edcf5d892f4/785ca865-792e-49eb-bc19-e7662faff059-master.m3u8https://video.igem.org/videos/embed/9VXQzeUMmWd658Z5QBJVtA119062020-09-25T09:15:23.437ZEnvironmentEuropeNetherlandsYES2020 Project PromotionsNOhttps://video.igem.org/w/qWzyZtEsp8rF9kEpiLWsXXhttps://video.igem.org/lazy-static/thumbnails/c2b9e133-9a56-4a5b-a94d-2e85a0c9393e.jpgPatras: Hippocrates (2020) - Project Promotion [English]"Project Hippocrates": We envision MiniLab as a molecular diagnostic device, supported by Artificial Intelligence software, which would show physicians what dosage of every drug, e.g. statins, whose action mechanism is associated with a gene, a patient should take. In that sense, we will be able to achieve reduction of drug’s side effects, in other words personalized medicine, cheaper, faster and more accurate than any other methods tried before. https://2020.igem.org/Team:Patras Iliopoulou Evanthia, Katsarou Vasiliki, Spanos Dimitrios, Zacharopoulos Lefteris https://www.facebook.com/igempatras, https://twitter.com/igempatras, https://www.instagram.com/igempatras/, https://www.linkedin.com/company/igem-patras-2020https://static.igem.org/peertube/streaming-playlists/hls/c9fa2dce-9d9b-4c10-b389-34dfab312ae5/138a96ed-45f4-455c-a4b4-7bf2c894c7ed-master.m3u8https://video.igem.org/videos/embed/qWzyZtEsp8rF9kEpiLWsXX11701772020-09-25T11:58:14.065ZDiagnosticsEuropeGreeceYES2020 Project PromotionsNOhttps://video.igem.org/w/9jAVqPbR4rQecefnw4RYMZhttps://video.igem.org/lazy-static/thumbnails/d4787fc8-bc20-4b92-a16a-d300e5270908.jpgNJTech_China: Yeast Adventures (2020) - Project Promotion [English]Abstract: Expensive pheromones are broadly used in the mating study of S. cerevisiae, which increases the research costs. Therefore, we substitute pheromones to galactose to reduce the cost. CRISPR/Cas9 system is used to knock out the Ste5, a scaffold protein which plays a core role in the pheromone signaling pathway. A galactose-induced Ste5 highly active mutant is constructed to modify the original mating signaling pathway, so the pheromone response is induced by galactose. Moreover, novel methods for detection signal strength and mating efficiency are provided. Wiki Link: https://2020.igem.org/Team:NJTech_China. Credit: Henghao Shan(10 point) Huilan Wu(10 point) Jiacheng Lee(10point) Ran Lu(9 point)(10 point system)https://static.igem.org/peertube/streaming-playlists/hls/436204a0-92bd-4828-905c-01292ac78123/eeddff96-0de3-46ab-a380-d7907484ac3c-master.m3u8https://video.igem.org/videos/embed/9jAVqPbR4rQecefnw4RYMZ1130442020-09-25T09:06:19.343ZChinaAsiaFoundationalAdvanceYES2020 Project PromotionsNOhttps://video.igem.org/w/brXKZ3BFPVevD3hnRehGSQhttps://video.igem.org/lazy-static/thumbnails/feaa9d35-b1d0-4eba-8fbb-abed56af5503.jpgFAFU-CHINA: Integrated Fermentation of Bioethanol (2020) - Project Promotion [English]FAFU-China has designed an integrated ethanol fermentation system based on Juncao biomass. At the same time, we also promote our project and synthetic biology concept to the public in many ways. Wiki link: https://2020.igem.org/Team:FAFU-CHINA Credits Video Producers: Tianjiao Lai,Zhuangyuan Cao,Shiyao Li,Haiyong Shu,Jiehui Ye,Lin Li,Shan Su,Jinchen Zhu,Lin Zhou,Huixin Liu,Haochen Zhanghttps://static.igem.org/peertube/streaming-playlists/hls/549b57d8-686f-4184-a6be-2f6e5ea70454/aa25c97e-428d-416e-988e-7034dd33e822-master.m3u8https://video.igem.org/videos/embed/brXKZ3BFPVevD3hnRehGSQ1190452020-09-25T23:20:31.838ZChinaNotrackAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/vgCHvYZKixXUWbe7CEPnikhttps://video.igem.org/lazy-static/thumbnails/8ea7b41d-78d0-4e0a-b48a-dd452bcc10ed.jpgHKUST: HAGBRIC (2020) - Project Promotion [Chinese/Cantonese]Abstract: Our project involves engineering bacteria (e. coli) to produce recombinant hagfish intermediate filaments (IF) and an accompanying dyeing system as a novel textile material. Native hagfish filaments have incredible strength and elasticity, which makes it a promising substitute for synthetic polymers such as nylon. Through fusion with chromoproteins of different color, we hope to produce a wide variety of colors, and bring our project closer to a viable clothing material. Wiki Link: https://2020.igem.org/Team:HKUST Credits: - Script: - Coral Sun -Tsang Cheuk Hei - Narration: - Vanessa Lee - Jeffrey Hui - Filming: - Cherry Wong - Vanesssa Lee - Sarah Hung - Animation: - Sarah Hung - Editing: - Macy Yuen - Subtitles: - Tsang Cheuk Hei Other links (Optional): https://www.instagram.com/hkustigem2020/https://static.igem.org/peertube/streaming-playlists/hls/ed07cdfa-ff15-4a7b-871e-9a7c06528c19/a5eb9454-ab8c-4ce1-957a-64af7defd60f-master.m3u8https://video.igem.org/videos/embed/vgCHvYZKixXUWbe7CEPnik1180212020-09-25T09:09:35.825ZHongKongManufacturingAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/8ivD8Mqjdmi41GERZLffushttps://video.igem.org/lazy-static/thumbnails/bab55cc0-a659-47a9-ac9a-cc336f26b8e0.jpgUCopenhagen: CIDosis (2020) - Project Promotion [English]We are CIDosis. Together we are 9 ambitious international students working on a patch with a yeast-based biosensor. By designing and using split protein interactions, we aim to hack signaling pathways in yeast to sense the presence of cytokines in sweat. Our patch provides a non-invasive way for patients to gain insight into the progression of their disease. Using our patch will allow patients to self-monitor on the go, and improve their quality of life. Wiki link: https://2020.igem.org/Team:UCopenhagen Credits: UCopenhagen team members: Script: Ignacio Pardo, Shivani Karnik & Victoria Ruhoff Recording & Editing: Ignacio Pardo, Victoria Ruhoff Audio: Victoria Ruhoff Music: royalty-free music from iMovie license. Actors: Aje Al-Awssi, David Essenbæk, Emil Funk, Endre Garberg, Ignacio Pardo, Jan Weicher, Karel Miettinen, Shivani Karnik, Victoria Ruhoff & Vit Zemanek. Collaborators outside of iGEM team: Actors: Caroline Mortensen & Sophie Sander. Facebook: https://www.facebook.com/iGEMCopenhagen Instagram: https://www.instagram.com/igem_copenhagen/ Twitter: https://twitter.com/iGEM_Copenhagen Blog: https://igemucph20.wordpress.com/ LinkedIn: CIDosis iGEM UCPH 2020https://static.igem.org/peertube/streaming-playlists/hls/3b21e193-aefc-4d45-a65d-6fa4f7a3b93a/46f84d5a-9020-4063-b652-7a5765151a62-master.m3u8https://video.igem.org/videos/embed/8ivD8Mqjdmi41GERZLffus11801182020-09-25T09:24:21.105ZDiagnosticsEuropeDenmarkYES2020 Project PromotionsNOhttps://video.igem.org/w/r5cNpVqcHTLqLdU8dX42H8https://video.igem.org/lazy-static/thumbnails/fc37c400-cc09-40a1-89ab-4778ae5fec37.jpgGZ_HFI: Degradation of Intestinal Stink Gas (2020) - Project Promotion [English]Stink farts lead to social embarrassment. This project genetically engineers probiotics e.coli to convert the main molecules that contribute the intestinal acrid smell (NH3 and H2S) to amino acids and produce fragrant substance myrcene. If people make it into a capsule and eat it, they could temporally eliminate intestinal stink gas and fart with the scent of red tea. This research can also help patients with enterostomy to get rid of bad body odor. Our wiki: https://2020.igem.org/Team:GZ_HFI Credits: Director: Xinyang Xie; Director of Cinematography: Yiming Chen; Animation productor: Jiafan Lin; Script Writer: Yue Wu; Film-Editor: Yue Wu, Yiming Chen; Actors: Jifei Xiao, Nuo Cen, Xinghao Peng, Xinyang Xie, Yanran Sun, Zhangge Ya, Zhuowei Yu; Background Music: Roman P - Up to the Sky, license number 231454; Kyle Preston - Alpha Theme V, license number 231454 For anyone who interests in our project, please follow us WeMedia "iGEM HFI"! Our WeMedia's WeChat ID is gh_b566bb182345 The team leader Yue Wu's email address is july0120@126.com for contact Thank you for watching this video.https://static.igem.org/peertube/streaming-playlists/hls/cb0ab6b6-5dcf-41a9-982f-e8c09217b89d/0fe5eb9d-776b-43df-a8d1-1d5d7cf11148-master.m3u8https://video.igem.org/videos/embed/r5cNpVqcHTLqLdU8dX42H811901472020-09-25T09:33:09.123ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/iKVDYZizGeqj5Y2PqmseD9https://video.igem.org/lazy-static/thumbnails/fd1a1078-d917-4eb8-bd6b-5d08daceb185.jpgWorldshaper-Wuhan: Breast Cancer (2020) - Project Promotion [English]Abstract: Breast cancer is the most common cancer among women and is the second cancer frequently occurring worldwide of newly-diagnosed cancers. There is an urgent search for new, non-invasive, biomarkers to evaluate the effect of chemotherapy and radiotherapy in breast cancer patients. Our project tried to use lncRNA sensor to provide a non-invasive approach for evaluate the effects of chemotherapy and radiotherapy in breast cancer patients. Wiki Link: **https://2020.igem.org/Team:Worldshaper-Wuhan** Credits: *Thanks to Carolyn, Bernice,Rebecca and Leo(Zihe Liu) for their contributions to this video* Other links: You can follow our WeChat official account: Sannew_iGEMhttps://static.igem.org/peertube/streaming-playlists/hls/8fcd67c3-0104-4dec-9f78-d805e4174fce/9faae8c7-e5e5-4595-a8cb-8799b239f3cb-master.m3u8https://video.igem.org/videos/embed/iKVDYZizGeqj5Y2PqmseD91140562020-09-25T09:16:17.246ZAsiaHighSchoolChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/t96C3QcSWSxx1NghiD9JkDhttps://video.igem.org/lazy-static/thumbnails/ee8f6d6c-83ad-4c86-bc7c-467a2508acc7.jpgShanghai_HS_United: A Quick Galactose Degeneration Method (2020) - Project Promotion [English]Abstract: Here is the iGEM team GalAcid. In order to treat those galactosemia patients. We use an innovative solution which is different from the mainstreamed therapies. We aim to build a engineered probiotic with the function to decompose those galactose into butyric acid, a beneficial short chain fatty acid, and eventually establish this probiotic to the market in the from of medicine. Wiki Link: https://2020.igem.org/Team:Shanghai_HS_United Credits: Yifan Jing Xinmao Li Zhaoqian wang Shujun cheng Tianze Qiu Mingxing Wang Junwen Miao Zhide zhang Han Zahng Yang Liu Weichen Sun Jiawei Wang Kaixi Huan Lingyu Feng Jiaying Zheng Yanbo Lin Jiaqi Zhang Yujun wei Xinyan Yu Yuantai Luo Wenxin Deng Zicheng Nihttps://static.igem.org/peertube/streaming-playlists/hls/dbc8288b-07b4-431b-811b-86cb901e740b/451aef4d-6929-4d95-aa9a-bb9c7995ce7b-master.m3u8https://video.igem.org/videos/embed/t96C3QcSWSxx1NghiD9JkD1200292020-09-25T09:22:32.311ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/wyQxYpYGBuZ3xuEAjSeyvShttps://video.igem.org/lazy-static/thumbnails/2fc11ea8-bdaa-4413-9bdc-1dfd88ecb9c2.jpgSYSU-CHINA: Semi-rational Evolution of ADAR inhibitor (2020) - Project Promotion [English]This year, our project is about double-strand RNA directed evolution based on ADAR1. It’s a fancy project with excellent experimental design. In this video, we create very cute characters to tell you how do we come up with this idea and the great significance of this project. If you’re willing to learn more about it, just click the link! Wiki Links：https://2020.igem.org/Team:SYSU-CHINA Animator Cartoonist:Jiaxin Wang Wenjie Lu Commentator:Fujia Han Yutao Chen Art Director: Wenjie Lu Kaixing Chen Producer: Jiaxin Wang Yuansi He Social Media Links（Blibli）：https://space.bilibili.com/382912874?spm_id_from=333.788.b_765f7570696e666f.1 https://static.igem.org/peertube/streaming-playlists/hls/f787e197-1e36-4aff-84b1-fd9de271872c/3c3a6a2a-ce3f-44db-ac54-967cfc6c10d7-master.m3u8https://video.igem.org/videos/embed/wyQxYpYGBuZ3xuEAjSeyvS1180412020-09-25T09:54:25.954ZChinaAsiaFoundationalAdvanceYES2020 Project PromotionsNOhttps://video.igem.org/w/vQZLAEstgig4oZZkXUjsPghttps://video.igem.org/lazy-static/thumbnails/be7d7fff-0440-4325-bb16-768a3ae5bbf4.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [Dutch]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/f1b052ce-9245-4a31-9c33-c426ec043a0d/2d714017-c2e1-4b73-9277-c5c61964a437-master.m3u8https://video.igem.org/videos/embed/vQZLAEstgig4oZZkXUjsPg119032020-09-25T09:35:27.017ZEuropeEnvironmentNetherlandsYES2020 Project PromotionsNOhttps://video.igem.org/w/neLvu2cewkLo5b5Bqznc5Lhttps://video.igem.org/lazy-static/thumbnails/517100ee-da17-445e-a0e3-23d881478f08.jpgOUC-China: Logitch (2020) - Project Promotion [English]Abstract: We incorporated a series of logic gates which were built by toehold and 3WJ repressor, and supplemented current lack of types with our own design. We also built more complex multi-input logic gates using basic logic gates. What's more, we used them in the construction of adder and subtractor, as well as virus detection. In the future, biocomputer may have various possibilities, and we hope our project can have some impact on its development. Wiki Link: https://2020.igem.org/Team:OUC-China Credits: Design: Team OUC-China Production: Qingying Ke (from Team OUC-China) Voiceover: Qingying Ke (from Team OUC-China) Captions: Qi Wu, Chaoxin Chen, Qingying Ke (from Team OUC-China) Background music: Written by Kevin Macleod (available for commercial and non-commercial purposes) Other links: oucigem@163.com; WeChat Official Account: OUCiGEMhttps://static.igem.org/peertube/streaming-playlists/hls/abfc0296-12a8-4c3b-a9af-59b59e4c2bb8/f7669c33-80ba-4ded-899f-53ce45cd1e6b-master.m3u8https://video.igem.org/videos/embed/neLvu2cewkLo5b5Bqznc5L1140302020-09-25T09:35:18.696ZChinaInformationProcessingAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/eGgjsbLSFiHxcnMZbGweJ7https://video.igem.org/lazy-static/thumbnails/d23033f1-ffa5-41b5-ab03-6be93dffa8fb.jpgBOKU-Vienna: Phangel (2020) - Project Promotion [German]Abstract: We are the iGEM team BOKU-Vienna 2020 and we present our project Phangel through which we will take bacteriophage therapy one step further. Some bacteria release toxic substances from their membranes when they die, possibly leading to septic shock. Phangel is a genetically engineered phage that infects a harmful bacterium and incites the production of a protein that binds the endotoxins so that they are not released into the system. Wiki Link: https://2020.igem.org/Team:BOKU-Vienna Credits: > Idea: Benedikt Haslinger, Katja Starnberger, Lukas Pucher, Oona Jung; > Filming: Benedikt Haslinger, Katja Starnberger, Oona Jung; > Animation & Voice: Katharina Ostertag > Video Editing: Benedikt Haslinger > Music: mixkit.co GIFs: giphy.com Animations: prezi.com https://static.igem.org/peertube/streaming-playlists/hls/6ee5fe56-d135-42f4-94de-fd9041084b8e/519e1638-15bd-4471-85cc-15feb79e49f6-master.m3u8https://video.igem.org/videos/embed/eGgjsbLSFiHxcnMZbGweJ7113062020-09-25T09:48:08.414ZTherapeuticsAustriaEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/w5dacnAi4sE1j7WTZyXNdThttps://video.igem.org/lazy-static/thumbnails/c507e8e7-423f-44e9-ad3e-b29067469406.jpgUCSC: Komaplastics (2020) - Project Promotion [English]Abstract: Conventional bed mulch films are a considerable source of plastic waste and pollution. This project aims to design a biodegradable thermoplastic derived from bacterial cellulose (BC) to replace contemporary agricultural films. CBM integration will be investigated as a way to integrate plasticizers to the BC as it is likely more compatible with a co-culture production scheme. Several plasticizers have been tested for their ability to plasticize cellulose while more plasticizer tests are underway. Wiki link: https://2020.igem.org/Team:UCSC Credits: Taylor Ziccardi: actor in first scene (UCSC iGEM member) Neil Smith: actor in first scene (UCSC iGEM member) Alicia Jorgenson: actor in second scene (UCSC iGEM member) Gabriel Sanchez Jr.: actor in second scene and cinematographer (UCSC iGEM member) Sophia Sneddon: actor in third scene (UCSC iGEM captain) Claudia Paz Flores: actor in third scene (UCSC iGEM member) Melody Azimi: actor in last scene (UCSC iGEM captain) Kyra Eyerman: actor in last scene (UCSC iGEM member) Navdeep Kalkat: editor and cinematographer (UCSC iGEM member)https://static.igem.org/peertube/streaming-playlists/hls/f388a0bb-0d50-4f46-b377-f9bc6c63505b/f3b28e22-a8cd-4a76-a037-4ff5cedf4895-master.m3u8https://video.igem.org/videos/embed/w5dacnAi4sE1j7WTZyXNdT1190712020-09-25T09:33:57.232ZNorthAmericaEnvironmentUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/qQ3netUUeVi16DbncxoVQNhttps://video.igem.org/lazy-static/thumbnails/109f1cd6-962e-4409-aa74-a64a351e9f2c.jpgXJTU-China: Sand Fixers Alliance (2020) - Project Promotion [English]Under the destruction of deforestation, excessive grazing and reclamation, desertification is intensified. In order to reverse the process of desertification, our team hopes to create artificial soil crusts, using cyanobacteria and Bacillus subtilis. We modified Bacillus subtilis to express two key enzymes in the production of extracellular polysaccharides and added an arabinose-regulated suicide switch to initiate suicide when they are no longer needed. By building this sand fixers alliance, we hope to effectively combat desertification. http://2020.igem.org/Team:XJTU-China Credits（names not listed in order） Director: Chen Yujie Screenwriter: Chen Yujie Cast: Chen Yujie, Liu Jianing, Jia Yingying, Li Jialu, Wang Weizhe Dubbing: Huang Xinghuai Editor: Wang Weizhe Visual Effect:Wang Weizhe Production: Chen Yujie Lighting: Chen Yujie Art director: Yin Bo, Wang Weizhe, Li Jialu, Jiao Zhihan, Chen Yujie Prop Master: Yin Bo, Wang Weizhe, Chen Yujie, Liu Yining, Liu Jianing, Li Qian, Li Jialu, Jia Yingying, Wei Shangjie Instructors: Lu Xiaoyun, Tan Dan Camera and Lighting Equipment Supplized by Qian Xuesen College of Xi'an Jiaotong University Sponored by Xi’an Jiaotong University Contact information： ljl2663724656@foxmail.comhttps://static.igem.org/peertube/streaming-playlists/hls/c9107ca8-80ff-4b64-8bac-5c053c811102/44db0199-77a9-41c1-9b97-b311f492d249-master.m3u8https://video.igem.org/videos/embed/qQ3netUUeVi16DbncxoVQN1190372020-09-25T09:34:53.626ZEnvironmentAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/6fiKwrMBNofq7U3k5ehWbQhttps://video.igem.org/lazy-static/thumbnails/8e7ef168-086f-40ae-9d28-e3470e09f82b.jpgHarvard: MOTbox (2020) - Project Promotion [English]Abstract: In light of SARS-CoV-2, an accessible therapeutic to reduce mortality is vital. We designed MOTbox, a Machine learning and Origami Therapeutic for SARS-CoV-2. Using DNA origami and machine learning, we computationally designed a novel form of therapeutic to bolster the body’s own immune response to improve recovery within an afflicted person. In our phase 1 of our project, we computationally designed and modeled our therapeutic, and are running preliminary experiments to validate its viability. Wiki Link: https://2020.igem.org/Team:Harvard Credits: Edited by Frank D’Agostino Narration by Frank D’Agostino Select footage from Pexels Icons from Biorender.com Sound effects from Soundsnap Music from FesliyanStudios DNA Origami animation by Shawn Douglas DNA Origami image taken from paper by Anderson, et al. (2009) Other Links: Follow Harvard College iGEM on Instagram @harvardcollegigemhttps://static.igem.org/peertube/streaming-playlists/hls/2a7d0b90-4f74-4239-970d-e8b2bacfb69c/cbaf4b06-7e3f-4f8a-8a65-1f588f0a047c-master.m3u8https://video.igem.org/videos/embed/6fiKwrMBNofq7U3k5ehWbQ12003382020-09-25T10:09:52.781ZUnitedStatesNorthAmericaTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/7AFceXhstooaNvz9dmkgZRhttps://video.igem.org/lazy-static/thumbnails/451f0860-89a4-4355-a35f-8a64a64d0af4.jpgUPF_Barcelona: Hormonic (2020) - Project Promotion [English]*Abstract* Thyroid diseases are a worldwide prevalent affection. Current therapies are not patient-specific and one third of the treated patients still exhibit symptoms. Hormonic aims to be a useful tool to fight against thyroid diseases by sensing the amount of T3 in the body using an engineered bacteria, which has a luminescence response coupled to a photodiode. This way the release of drugs is continuously controlled by a computer in response to the measured fluorescence. *Wiki link* https://2020.igem.org/Team:UPF_Barcelona *Credits* Video directed, produced and edited by Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Míriam Caravaca and Nerea Álvarez de Eulate. In the video appear Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Marcos Chic, Míriam Caravaca, Nerea Álvarez de Eulate, Quim Martí and Tomàs Berjaga. Special thanks to Mónica Ortega for the English Narration and Raquel Gonzalez for the Gallician narration. Also, acknowledgements to “La Factoria” and our instructors (Avencia Sánchez-Mejías, Marc Güell, Sira Mogas and Dimitrije Ivančić) for guidance and tips through the creation of the video. Background music is under creative commons: **Swan Lake Op.20** Act III Concl, Allegro (fragment) by P. I. Tchaikovsky from the European Archive https://musopen.org/music/42995-swan-lake-op-20/ **Radetzky March** by Johann Strauss I, from Sound Off! recorded at Center for the Arts, George Mason University https://commons.wikimedia.org/w/index.php?title=File%3ARadetzky_March.ogg *Other links* [Instagram](https://www.instagram.com/igembarcelona/) [Twitter](https://twitter.com/igembarcelona)https://static.igem.org/peertube/streaming-playlists/hls/356e4630-9be5-4a8e-b249-cad9b133b56f/e26f90f2-dfc6-4bc4-a8f5-c37502d03cee-master.m3u8https://video.igem.org/videos/embed/7AFceXhstooaNvz9dmkgZR12002072020-09-25T09:59:35.954ZSpainEuropeTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/7doTYWUt1qqAaW566MvS1Ehttps://video.igem.org/lazy-static/thumbnails/78f5d0c5-c186-41a6-95bc-e2181a1dfbf1.jpgTechnion-Israel: ACT. (2020) - Project Promotion [Hebrew]Abstract: We are proud to present the Israeli Technion team's promotion video! Let us take you through the journey of the world pandemic caused by COVID-19. The impact it has left on the world since the outbreak, and the unclear future drove our team to find a solution to lower the virus's infectivity and help the healthcare systems. Meet our team and see the work we are doing in order to complete that vision. Wiki link: https://2020.igem.org/Team:Technion-Israel Credits: English narration- Hillah Hassan Animation- Elona Danishevsky Filming and Photography equipment- Jorge Enrique Yung Chinse subtitle- Frank Yen Other links: Facebook: https://www.facebook.com/igemtechnion Twitter: https://twitter.com/technion2020 Instagram: https://www.instagram.com/igem_technion/https://static.igem.org/peertube/streaming-playlists/hls/3251de15-0663-40ad-880e-21e17f4cd0e6/e1cdac06-698d-4c44-8b51-4f49ba3b59c8-master.m3u8https://video.igem.org/videos/embed/7doTYWUt1qqAaW566MvS1E1200422020-09-25T10:04:07.231ZAsiaIsraelNewApplicationYES2020 Project PromotionsNOhttps://video.igem.org/w/uyFizLheCfTvPhJPQWyhWDhttps://video.igem.org/lazy-static/thumbnails/9960e7f7-2f47-4358-8136-1b19346ab978.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [Finnish]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/e74fe78f-f5d4-4962-8a5a-61e3834353c1/9a05fa57-c08e-466a-a12f-79882a771cce-master.m3u8https://video.igem.org/videos/embed/uyFizLheCfTvPhJPQWyhWD119032020-09-25T10:08:12.711ZNetherlandsEnvironmentEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/1EfXXxpP6VjnQ1hKmWRybrhttps://video.igem.org/lazy-static/thumbnails/71512b57-b0d3-4208-adb7-76bd9f58c332.jpgUPF_Barcelona: Hormonic (2020) - Project Promotion [Catalan]*Abstract* Thyroid diseases are a worldwide prevalent affection. Current therapies are not patient-specific and one third of the treated patients still exhibit symptoms. Hormonic aims to be a useful tool to fight against thyroid diseases by sensing the amount of T3 in the body using an engineered bacteria, which has a luminescence response coupled to a photodiode. This way the release of drugs is continuously controlled by a computer in response to the measured fluorescence. *Wiki link* https://2020.igem.org/Team:UPF_Barcelona *Credits* Video directed, produced and edited by Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Míriam Caravaca and Nerea Álvarez de Eulate. In the video appear Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Marcos Chic, Míriam Caravaca, Nerea Álvarez de Eulate, Quim Martí and Tomàs Berjaga. Special thanks to Mónica Ortega for the English Narration and Raquel Gonzalez for the Gallician narration. Also, acknowledgements to “La Factoria” and our instructors (Avencia Sánchez-Mejías, Marc Güell, Sira Mogas and Dimitrije Ivančić) for guidance and tips through the creation of the video. Background music is under creative commons: **Swan Lake Op.20** Act III Concl, Allegro (fragment) by P. I. Tchaikovsky from the European Archive https://musopen.org/music/42995-swan-lake-op-20/ **Radetzky March** by Johann Strauss I, from Sound Off! recorded at Center for the Arts, George Mason University https://commons.wikimedia.org/w/index.php?title=File%3ARadetzky_March.ogg *Other links* [Instagram](https://www.instagram.com/igembarcelona/) [Twitter](https://twitter.com/igembarcelona) https://static.igem.org/peertube/streaming-playlists/hls/05577c52-ba0a-4b02-a657-66def5022325/c2266b3d-3318-4bb9-998f-a94011236944-master.m3u8https://video.igem.org/videos/embed/1EfXXxpP6VjnQ1hKmWRybr1200112020-09-25T10:11:10.267ZSpainEuropeTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/a22PHyn8gcUBJspHNMqG7Ghttps://video.igem.org/lazy-static/thumbnails/1e38475c-b59b-4a5c-bd04-eeec2c6e72d8.jpgUPF_Barcelona: Hormonic (2020) - Project Promotion [Spanish]*Abstract* Thyroid diseases are a worldwide prevalent affection. Current therapies are not patient-specific and one third of the treated patients still exhibit symptoms. Hormonic aims to be a useful tool to fight against thyroid diseases by sensing the amount of T3 in the body using an engineered bacteria, which has a luminescence response coupled to a photodiode. This way the release of drugs is continuously controlled by a computer in response to the measured fluorescence. *Wiki link* https://2020.igem.org/Team:UPF_Barcelona *Credits* Video directed, produced and edited by Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Míriam Caravaca and Nerea Álvarez de Eulate. In the video appear Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Marcos Chic, Míriam Caravaca, Nerea Álvarez de Eulate, Quim Martí and Tomàs Berjaga. Special thanks to Mónica Ortega for the English Narration and Raquel Gonzalez for the Gallician narration. Also, acknowledgements to “La Factoria” and our instructors (Avencia Sánchez-Mejías, Marc Güell, Sira Mogas and Dimitrije Ivančić) for guidance and tips through the creation of the video. Background music is under creative commons: **Swan Lake Op.20** Act III Concl, Allegro (fragment) by P. I. Tchaikovsky from the European Archive https://musopen.org/music/42995-swan-lake-op-20/ **Radetzky March** by Johann Strauss I, from Sound Off! recorded at Center for the Arts, George Mason University https://commons.wikimedia.org/w/index.php?title=File%3ARadetzky_March.ogg *Other links* [Instagram](https://www.instagram.com/igembarcelona/) [Twitter](https://twitter.com/igembarcelona) https://static.igem.org/peertube/streaming-playlists/hls/49071d6f-d753-4dcd-a096-66a448a33d34/1f62eda1-6785-436a-9112-b6033d31033c-master.m3u8https://video.igem.org/videos/embed/a22PHyn8gcUBJspHNMqG7G1200162020-09-25T10:13:21.457ZSpainTherapeuticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/wos7KMs4pPs7yomAmwDs4rhttps://video.igem.org/lazy-static/thumbnails/af2968a1-1c04-4428-8dac-ed80138bdf5e.jpgUPF_Barcelona: Hormonic (2020) - Project Promotion [Basque]*Abstract* Thyroid diseases are a worldwide prevalent affection. Current therapies are not patient-specific and one third of the treated patients still exhibit symptoms. Hormonic aims to be a useful tool to fight against thyroid diseases by sensing the amount of T3 in the body using an engineered bacteria, which has a luminescence response coupled to a photodiode. This way the release of drugs is continuously controlled by a computer in response to the measured fluorescence. *Wiki link* https://2020.igem.org/Team:UPF_Barcelona *Credits* Video directed, produced and edited by Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Míriam Caravaca and Nerea Álvarez de Eulate. In the video appear Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Marcos Chic, Míriam Caravaca, Nerea Álvarez de Eulate, Quim Martí and Tomàs Berjaga. Special thanks to Mónica Ortega for the English Narration and Raquel Gonzalez for the Gallician narration. Also, acknowledgements to “La Factoria” and our instructors (Avencia Sánchez-Mejías, Marc Güell, Sira Mogas and Dimitrije Ivančić) for guidance and tips through the creation of the video. Background music is under creative commons: **Swan Lake Op.20** Act III Concl, Allegro (fragment) by P. I. Tchaikovsky from the European Archive https://musopen.org/music/42995-swan-lake-op-20/ **Radetzky March** by Johann Strauss I, from Sound Off! recorded at Center for the Arts, George Mason University https://commons.wikimedia.org/w/index.php?title=File%3ARadetzky_March.ogg *Other links* [Instagram](https://www.instagram.com/igembarcelona/) [Twitter](https://twitter.com/igembarcelona)https://static.igem.org/peertube/streaming-playlists/hls/f6149e19-de96-4e57-a77f-8f9f61c36b17/09cb2831-c5fb-4391-b571-48fa43a5d5d4-master.m3u8https://video.igem.org/videos/embed/wos7KMs4pPs7yomAmwDs4r120082020-09-25T10:18:28.986ZTherapeuticsEuropeSpainYES2020 Project PromotionsNOhttps://video.igem.org/w/pGQM6Uehnmqo4zDWkYDp2ihttps://video.igem.org/lazy-static/thumbnails/6f5b5b2c-93ab-4374-8063-345471aa3c87.jpgAachen: M.A.R.S. (2020) - Project Promotion [English]**Title:** M.A.R.S. - Magnetic ATP Recycling System **Abstract:** The complex regeneration of biochemical energy sources represents a cost-intensive hurdle for many production and research processes. With our M.A.R.S.-Bioreactor, we are investigating innovative and standardizable ways of producing and recycling biochemical energy sources. Our Magnetic ATP Recycling System is characterized by a combination of immobilization techniques which enable sustainable and efficient reusability of energy carriers. This way, the necessary energy can be used directly where it is needed. [Wiki](https://2020.igem.org/Team:Aachen) | [Presentation](https://video.igem.org/videos/watch/ed599430-bf4e-4a96-a29c-debb62facc99) **Credits:** *Editor and FX - Christian Hartmann // Vocal Artist - Sam Williamson // Fotos - Crystal Kwok // Music: Nicolas Guerrero - Dawn & Willyecho - We Came To Fight* [Instagram](https://www.instagram.com/igem.aachen) | [Facebook](https://www.facebook.com/iGEMAachen) | [Linkedin](https://www.linkedin.com/company/igem-aachen) | [Website](http://www.igem.rwth-aachen.de) https://static.igem.org/peertube/streaming-playlists/hls/bff60010-a0a8-4d37-92ec-da263d7cc9af/a404e9e5-b3ad-409b-aae5-0cfa51f533da-master.m3u8https://video.igem.org/videos/embed/pGQM6Uehnmqo4zDWkYDp2i120047312020-09-25T11:11:14.216ZEuropeFoundationalAdvanceGermanyYES2020 Project PromotionsNOhttps://video.igem.org/w/xanJFMvAT7eEpjg5yMss91https://video.igem.org/lazy-static/thumbnails/6f1ea219-76fe-4d06-a715-1dd0331d142e.jpgUPF_Barcelona: Hormonic (2020) - Project Promotion [Galician]*Abstract* Thyroid diseases are a worldwide prevalent affection. Current therapies are not patient-specific and one third of the treated patients still exhibit symptoms. Hormonic aims to be a useful tool to fight against thyroid diseases by sensing the amount of T3 in the body using an engineered bacteria, which has a luminescence response coupled to a photodiode. This way the release of drugs is continuously controlled by a computer in response to the measured fluorescence. *Wiki link* https://2020.igem.org/Team:UPF_Barcelona *Credits* Video directed, produced and edited by Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Míriam Caravaca and Nerea Álvarez de Eulate. In the video appear Andreu Pascuet, Eduard Suñé, Jan Pinyol, Jaume Puig, June Monge, Marcos Chic, Míriam Caravaca, Nerea Álvarez de Eulate, Quim Martí and Tomàs Berjaga. Special thanks to Mónica Ortega for the English Narration and Raquel Gonzalez for the Gallician narration. Also, acknowledgements to “La Factoria” and our instructors (Avencia Sánchez-Mejías, Marc Güell, Sira Mogas and Dimitrije Ivančić) for guidance and tips through the creation of the video. Background music is under creative commons: **Swan Lake Op.20** Act III Concl, Allegro (fragment) by P. I. Tchaikovsky from the European Archive https://musopen.org/music/42995-swan-lake-op-20/ **Radetzky March** by Johann Strauss I, from Sound Off! recorded at Center for the Arts, George Mason University https://commons.wikimedia.org/w/index.php?title=File%3ARadetzky_March.ogg *Other links* [Instagram](https://www.instagram.com/igembarcelona/) [Twitter](https://twitter.com/igembarcelona)https://static.igem.org/peertube/streaming-playlists/hls/fc5a633d-469d-402c-8c00-28ad14b95dd8/24124dab-ed8b-4a98-8ded-0caa09d0b84e-master.m3u8https://video.igem.org/videos/embed/xanJFMvAT7eEpjg5yMss91120052020-09-25T10:26:05.350ZTherapeuticsSpainEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/5ZMjVrMqGpGS1NFCL2UEhKhttps://video.igem.org/lazy-static/thumbnails/a000d21b-961e-48b8-8626-3afb90e3cae8.jpgNTHU_Taiwan: BioSquad (2020) - Project Promotion [English]Abstract: The current approaches to synthesizing quantum dot is mostly using chemical reaction. It will produce lots of drain water during the process as well as using large amount of organic solution. Our team, NTHU_Taiwan, hope to reuse the Cd ion contained in waste and transform them into highly profitable nanomaterial. Wiki Link: https://2020.igem.org/Team:NTHU_Taiwan Credits: Thanks for iGEM for the intro sequence Other links (Optional): Visit our fanpage on facebook: https://www.facebook.com/NTHU.iGEM/ https://static.igem.org/peertube/streaming-playlists/hls/2875e200-070f-4b1b-8fe4-2cfad3842c53/5ec3d585-2de4-4875-8493-61bdbce49123-master.m3u8https://video.igem.org/videos/embed/5ZMjVrMqGpGS1NFCL2UEhK1050502020-09-25T10:38:40.229ZManufacturingAsiaTaiwanYES2020 Project PromotionsNOhttps://video.igem.org/w/ajjotrdG3HRZjvEJr1pEjThttps://video.igem.org/lazy-static/thumbnails/75abbfaf-bcd6-41a7-aad6-ff86c7e57d53.jpgCSMU_Taiwan: miRNA.doc (2020) - Project Promotion [English]Oral cancer is a prominent problem in Taiwan. This year, CSMU_Taiwan attempts to address this issue through a novel detection method, miRNA.doc, that would solve the current biases in oral cancer detection. This method involves targeting miRNA in saliva and an easily-accessible device, glucometer, in order to provide a non-invasive and quantitative method for oral cancer detection in hopes of bringing a more objective diagnostic result for patients. Wiki link: https://2020.igem.org/Team:CSMU_Taiwan Credits: Video Editing: Matilda Key Script: Hsiao, Tzu-Hsuan/ Jian-An, Pan/ Matilda Key / Hung Yu Chen Subtitles: Matilda Key / Jian-An, Pan Director: Chen Shen Lin Animator: Matilda Key Narrator: Jian-An, Pan Our Facebook Page: https://www.facebook.com/igemcsmutaiwan Our Instagram: https://instagram.com/igem_csmuhttps://static.igem.org/peertube/streaming-playlists/hls/4b70f7ac-a852-48f4-82c9-7464b4cd1057/d7fc876c-cbc4-42a6-9bb8-d9a84e0074e1-master.m3u8https://video.igem.org/videos/embed/ajjotrdG3HRZjvEJr1pEjT11902582020-09-25T10:55:04.874ZDiagnosticsTaiwanAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/nH2JHEafXKGRAqk2WMEBhwhttps://video.igem.org/lazy-static/thumbnails/9ab01eb5-26f9-450c-b592-0ffe59a73fe0.jpgSt_Andrews: Shinescreen (2020) - Project Promotion [English]Current sunscreens use a combination of inorganic nanoparticles and coral-damaging UV-absorbing compounds including oxybenzone. Using Nissle E. coli as an in-silico chassis, the St Andrews team seeks to combat widespread coral decline by designing a living sunscreen expressing a potent cyanobacterial photoprotective compound, shinorine. Vital to our project is a controlling mechanism; a novel killswitch was developed using environmental stimuli to restrain growth of the chassis to the permissive condition of the skin. Wiki: https://2020.igem.org/Team:St_Andrews Credits Video: Anneleen de Ruiter Illustrations: Megan Fletcher Voice: Laurence Seeley Script: Polina Foteva, Caius Gibeily, Isobel Guthrie, Yaxuan Kong, Soo Bynn Lee, Issac Johann Li, and Bradley McCallion Music: www.bensounds.com Social Media Email - igem@st-andrews.ac.uk Instagram - igem2020_st.andrews LinkedIn - Shinescreen (St Andrews iGEM) Facebook - @st.andrews.igem https://static.igem.org/peertube/streaming-playlists/hls/afca7a02-65e3-4eb3-9f4a-6c4248747aea/40d94073-00dc-46c5-9e50-3604b6902d31-master.m3u8https://video.igem.org/videos/embed/nH2JHEafXKGRAqk2WMEBhw1200842020-09-25T11:20:02.930ZEuropeUnitedKingdomEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/4CLD9DN8vNvKRQqg5jJA9chttps://video.igem.org/lazy-static/thumbnails/e9fb7589-63c0-4a2f-957c-f1e9190b8635.jpgNJMU-China: Sound of Silence (2020) - Project Promotion [English]Abstract: Autism is a classic pervasive developmental disorder, putting heavy burdens on both families and society. To improve the screening rate of autism, our project is committed to designing a paper sample as a complement of behavioral diagnosis. The sample is embedded with engineered serotonin whole cell biosensor which turns blue when dipped into the urine of autistic children. Parents may have the chance to test their children at home, making it possible to grasp the best time for treatment. Wiki Link: **https://2020.igem.org/Team:NJMU-China** Credits: *Director：Sihan Ju /Yisheng Ji/Simeng Yin Scriptwriter： Simeng Yin/Yisheng Ji Animation Elements Designer：Mengmeng Cao Dubbing Specialist：Yisheng Ji People on the Volunteer Work Pictures：Jiajie Li/Jin Lin/Haozhong Ma/Jingfeng Xu Background Music: Rain by @iksonmusic*https://static.igem.org/peertube/streaming-playlists/hls/1d6db3cf-a7e0-43d9-a57c-dccade816493/1fb4ba97-9049-4d80-85aa-78cdeec350e3-master.m3u8https://video.igem.org/videos/embed/4CLD9DN8vNvKRQqg5jJA9c1190312020-09-25T10:51:27.606ZAsiaChinaDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/vGjBJQ5KMFbVBbq29RXayBhttps://video.igem.org/lazy-static/thumbnails/8151bb22-9b19-4cc1-bfc1-3bad7096d2be.jpgEvry_Paris-Saclay: Rosewood (2020) - Project Promotion [English]Abstract: Rosewood is the most trafficked wildlife product in the world. In contrast to the noticeable elephant’s ivory or tiger’s fur, once Rosewood is logged, it is impossible to distinguish it from other non-protected wood species by naked eye and still hard with the use of a microscope. However, it can be distinguished at the genetic level and this is why we are working on developing a biosensor capable to detect it. Wiki link: https://2020.igem.org/Team:Evry_Paris-Saclay Credits: Thanks to: Contributors: Maëva Cherriere, Hassan Hijazi, Micky-Love Mocombe, Alexandre Tardivel Supervisors: Manish Kushwaha and Ioana Popescuhttps://static.igem.org/peertube/streaming-playlists/hls/f07a3e9c-0481-49a2-8907-6383c2dbf78f/030ce686-8a26-4627-a131-5ee45b24a73a-master.m3u8https://video.igem.org/videos/embed/vGjBJQ5KMFbVBbq29RXayB11901702020-09-25T11:03:17.126ZEuropeNewApplicationFranceYES2020 Project PromotionsNOhttps://video.igem.org/w/4kwAFzkcsx2SrVBpoTckuVhttps://video.igem.org/lazy-static/thumbnails/60ba3b8d-6a3c-476f-817b-1cbfc0a60ddd.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [French]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/1b05677e-de96-487c-9eb3-5ce213987421/fb5076f0-cc28-41a4-a24e-11ee197fcaac-master.m3u8https://video.igem.org/videos/embed/4kwAFzkcsx2SrVBpoTckuV119042020-09-25T10:54:18.104ZEuropeNetherlandsEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/1tKCAUQovEjbp2CZ1Qd5gmhttps://video.igem.org/lazy-static/thumbnails/c5ef5402-6370-4780-a9a7-3773404d8704.jpgSCU-China: RNAlphABA (2020) - Project Promotion [English]Abstract: When late spring cold, floods, and droughts come, spraying Abscisic acid (ABA) can help plants survive and reduce agricultural losses. However, ABA through chemical producing way contains many toxic substances and purified ABA is expensive for farmers to use. Therefore, we hope to construct engineered S. cerevisiae for ABA producing, so that farmers could get ABA as long as using yeast to make dough. Besides, we want to design a polycistronic expression system that can be used in eukaryotic cells. Wiki Link: https://2020.igem.org/Team:SCU-China Credits: Voice: Yuxi Liu. Assistant: Yichen Wei; Meiyi Ge; Zixuan Yang; Yulongda Wang. Transcription: Jiayi Ji; Jinghong Peng; Ziyan Zhang; Yanshen Yu. Material: Xiangyu Zhang; Hongli Wang; Haohao Jia. Subtitle: Jinyu Yu; Tian Xu. Director: Tingting Jia. Editor: Zhenchao Zhaohttps://static.igem.org/peertube/streaming-playlists/hls/03dff86b-8629-4616-9bf2-a131c782b22a/be70d74a-6b2b-4983-8400-21595b470357-master.m3u8https://video.igem.org/videos/embed/1tKCAUQovEjbp2CZ1Qd5gm1190342020-09-25T11:00:30.775ZChinaAsiaNewApplicationYES2020 Project PromotionsNOhttps://video.igem.org/w/1Yxu9oMhQbd4iFWv9J5CDfhttps://video.igem.org/lazy-static/thumbnails/54cac188-7dd2-49c0-b34a-03b280980742.jpgCCU_Taiwan: DENDETX (2020) - Project Promotion [English]Dengue virus is an emerging thread in public health around the world. We are developing a detection kit for the dengue virus, which is based on the peptides instead of the commonly used antibodies. Our detection kit is designed to detect the virus faster and remain stable for a more extended period. We hope that our product could slow down the virus spreading and earn more time for early treatment. https://2020.igem.org/Team:CCU_Taiwan Director: Yu-Shiuan Chang Photographer: Yu-Shiuan Chang Editor: Yu-Shiuan Chang Animator: Yuan-Zhi Li, Chiau-Shu Pan Narration: Chia-Wei Shen, Xiang-Yen Wong, Jyue-Han Chen Music: Young-Cheng Lin Aerial photography: Alex Liang Mosquito provider: Wu-Chun Tu, Ph.D., Cheng-Hsueh Huang, Yu-Shan Tu Professor: Eugene C. Lin, Ph.D., Hau-Ren Chen, Ph.D., Chun-Ying Yu, Ph.D., Gerry Rau, Ph.D., Victoria Rau, Ph.D., Cheng-I Lee, Ph.D., Wing-Yan Chan, Ph.D. https://www.instagram.com/ccuigem/ https://www.facebook.com/ccuigemteam/https://static.igem.org/peertube/streaming-playlists/hls/07e50dfa-0f9a-4b5d-ac09-52149c60b500/425d8946-8d20-48d2-be3c-268698acc9ca-master.m3u8https://video.igem.org/videos/embed/1Yxu9oMhQbd4iFWv9J5CDf1030952020-09-25T11:03:39.561ZTaiwanAsiaDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/vTVGULYii8Hfm58CiTnNUFhttps://video.igem.org/lazy-static/thumbnails/f93390ac-ce25-4cea-916c-8ba01fd6bc28.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [German]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/f2190ced-ccc7-4cef-9b87-90464397bdff/6d0203a5-1b4c-45ca-b196-699ca5b255e4-master.m3u8https://video.igem.org/videos/embed/vTVGULYii8Hfm58CiTnNUF1190292020-09-25T11:22:45.594ZEuropeEnvironmentNetherlandsYES2020 Project PromotionsNOhttps://video.igem.org/w/vK9GPBCNbX4PzKAWv8WdsPhttps://video.igem.org/lazy-static/thumbnails/d0c373ef-8cf1-46fd-a015-5b4253f764a6.jpgAthens: MORPHÆ (2020) - Project Promotion [English]Abstract: [ENGLISH] We are iGEM Athens and we are reconsidering chemical dyes, responsible for worldwide pollution, energy waste and human health hazards. We propose the production of a sustainable biomaterial with structural colour properties. A structurally coloured biofilm formed by Flavobacteria johnsoniae will be engineered to excrete cellulose that will retain colour. When extracted, cellulose could be used as a biodegradable coating that “reshapes” a variety of surfaces and products. [GREEK] Είμαστε η iGEM Athens και επαναπροσδιορίζουμε τις χημικές βαφές, οι οποίες είναι υπεύθυνες για ρύπανση παγκοσμίως, ενεργειακές δαπάνες και επιφέρουν κινδύνους για την ανθρώπινη υγεία. Εισηγούμαστε την παραγωγή ενός βιώσιμου βιοϋλικού με ιδιότητες δομικού χρώματος. Τα βακτήρια Flavobacteria johnsoniae, τα οποία δημιουργούν ένα δομικά χρωματισμένο βιοφιλμ, θα σχεδιαστούν να παράγουν κυτταρίνη που θα διατηρεί το χρώμα. Η παραγόμενη κυτταρίνη θα μπορεί να χρησιμοποιηθεί ως βιοαποδομήσιμη επίστρωση μεταμορφώνοντας μία πληθώρα επιφανειών και προϊόντων. Credits: We used videos provided as supplementary material in this paper https://rdcu.be/b7EWV, that are licensed under the Creative Commons Licence https://creativecommons.org/licenses/by/4.0/. Morpho Menelaus picture licensed under Creative Commons License https://creativecommons.org/licenses/by-sa/3.0/deed.en and the author is Derkarts Morpho picture licensed under Creative Commons License https://creativecommons.org/licenses/by-sa/4.0/deed.no and the author is Didier Descouens Blue Morpho Butterfly at University of Florida picture licensed under the Creative Commons License https://creativecommons.org/licenses/by-sa/4.0/ and the author is Terry Foote SEM image of a Peacock wing, slant view picture licensed under the GNU Free Documentation License and the author is SecretDisc All other videos/pictures taken from pexels.com / pixabay.com, websites with copyright free material. Music (Copright Free): Music Credit: WORMONO T...https://static.igem.org/peertube/streaming-playlists/hls/f0df5dfe-605b-49c2-adf0-829c295e7643/42106ed1-2221-4016-b280-d0574a9f1d17-master.m3u8https://video.igem.org/videos/embed/vK9GPBCNbX4PzKAWv8WdsP11908752020-09-25T11:33:58.491ZManufacturingEuropeGreeceYES2020 Project PromotionsNOhttps://video.igem.org/w/qqTxrL8VqDKesWhHBDhgW5https://video.igem.org/lazy-static/thumbnails/7a24f97a-61c9-47f1-b4a8-4c6fe1b6e061.jpgNFLS: Trash to Treasure (2020) - Project Promotion [English]Abstract: Inspired by a professor, who emphasizes the pollution brought by imperfect disposal for wastepaper and straws, a student decides to organize a team, devising an environmentally friendly way to treat them. The team uses engineered E.coli to degrade the cellulose in waste paper and straws, and transforms them into electricity by Microbial Fuel Cells. Several years later, when the student grows up to be a teacher, the air quality has been greatly improved. Wiki Link: https://2020.igem.org/Team:NFLS Credits: Starring: ZiAng Bi as Student, Haoru Li as Professor Director: Aijia Wang, Yule Li,Yu Xue Screenwriter: Yu Xue, Aijia Wang, ZiAng Bi Voiceover: ZiAng Bi as Student, Yu Xue as Professor Camera Operator: ZiAng Bi (with his mother), Yule Li, Enze Liu Animation Shooting: Aijia Wang,Haoyan Liang Editing: Yule Li, Haoyan Liang, Aijia Wang Audio: Yule Li Caption: Enze Liu, Yule Li Video Edited Using iMoviehttps://static.igem.org/peertube/streaming-playlists/hls/c5d4f13a-1467-4f82-aad3-2231a4210a4c/519cf88e-d5ae-47b5-8392-3321742664e2-master.m3u8https://video.igem.org/videos/embed/qqTxrL8VqDKesWhHBDhgW51190382020-09-25T12:13:15.149ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/tXaX7axmqRWmrCUBhExLrChttps://video.igem.org/lazy-static/thumbnails/18ba5544-2f6b-498a-a345-9f238b4ae161.jpgTPR_China: Locust Master (2020) - Project Promotion [English]Abstract: Consisting of inspired high schoolers from various regions, our team (the Pacific Rim, TPR_China) create this project to tackle the locust plague and to solve related problems in an environmental-friendly way. Through synthesis of 4-Vinylanisole and degradation of Phenylacetonitrile, locusts are “attracted” together and the site-specific control of locust swarms is realized. Then, measures are taken to remove the locusts within the area. Wiki Link: https://2020.igem.org/Team:TPR_China Credits: Memebers:Zijia Liu, Jialin Wang, Sophia Du, Bohan Li, Yuchen Han, Hao Wu, Xinyuan Hao, Duyuan Fang, Wenfei Hao, Hongyu Yu.BGM:Song: Niwel-Blame(Vlog Beats No Copyright Music)Music provided by Vlog Beats No Copyright Music.Video Link: https://youtu.be/hEY4rXFmxy8;Title:City Lights Artist: Nekzlo Genre: Dance & Electronic/EDM Mood:Happy Download:https://bit.ly/2Z9NbsP Other links: Email: qijixuanlan@163.com WeChat Official Account: TPR iGEM2020https://static.igem.org/peertube/streaming-playlists/hls/e25ac87b-fbdb-4a89-bd63-836e7e5bd7f6/ee35dbf1-0245-4d51-9f28-bc4f6c36cebb-master.m3u8https://video.igem.org/videos/embed/tXaX7axmqRWmrCUBhExLrC1190412020-09-25T11:46:52.430ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/2K4DLQMnaS1LMzygPYP1NZhttps://video.igem.org/lazy-static/thumbnails/942b6c72-726b-49e7-acbf-18e4cbd68b9b.jpgUESTC-Software: CPD3DS (2020) - Project Promotion [Chinese]Abstract:The iGEM team UESTC-Software creatively proposed CPD (3DS)（classification of protein domains in 3D shape）, We apply the 3D shape of the protein to compare and analyze its domain composition, so that synthetic biologists can directly use the classified and standardized domains for protein design. Based on our project, we have also designed a set of building blocks that are both scientific and interesting.——Probrick! Wiki Link: https://2020.igem.org/Team:UESTC-Software Credits: 1. LIist of team members：（In no particular order） Dong Haoran、Han Jingqi、Wang Bin、Mei Yao、Gao Fan、Mo Nan、Liu Mingkang、Min Zhuochao、Zhou Tao、Yang Zhaochang、Qiao Dan、Xiong Huiyu 2.Adviser：Wang Beibei、Quan Ling 3.Director：Dong Haoran 4.Animator：Han Jingqi 5.Voice actors：Mo Nan、Dong Haoran、Han Jingqi 6.BGM: Blurry Vision - Corbyn Kites 7.Aerial footage:News Center of UESTC https://static.igem.org/peertube/streaming-playlists/hls/0e1c5ef5-e1a0-450a-926f-4cb1226a1c9d/0a37c357-6e01-44f1-bec9-9cac9be7b9c2-master.m3u8https://video.igem.org/videos/embed/2K4DLQMnaS1LMzygPYP1NZ118062020-09-25T12:03:27.042ZSoftwareAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/6UguhKwBxaq1Sufm38U3Y6https://video.igem.org/lazy-static/thumbnails/5d4aaa6a-efed-4f81-af14-8628d8ad2b96.jpgNOFLS_YZ: FXR in T2DM Drug Discovery (2020) - Project Promotion [English]Abstract: We are Counter Suger, a team dedicated to solving type-2 diabetes. Just like the game Counter Strike, we use our wisdom to challenge type-2 diabetes, a major “terrorist” threatening mankind. We have mastered the necessary experimental operation and knowledge. Under guidance of our instructors, we work together to design a scheme to reduce human blood glucose by inhibiting the human liver kernel receptor FXB. We are looking forward to your attention and support. Wiki Link: https://2020.igem.org/Team:NOFLS_YZ Credits: 辛子岩 Xin Ziyan 周士元 Zhou Shiyuan 吴俊辰 Wu Junchen 刘骐恺 Liu Qikai 孔冠霖 Kong Guanlin 裴俊宇 Pei Junyu 卢雨阳 Lu Yuyanghttps://static.igem.org/peertube/streaming-playlists/hls/2fc9e9fb-bece-48cc-ab00-469ad1d64dcd/3489c7a8-dd52-41d7-b25c-1ab4d5fd9b67-master.m3u8https://video.igem.org/videos/embed/6UguhKwBxaq1Sufm38U3Y61090232020-09-25T11:53:08.511ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/hDn24cL3FNM86L3rnApWMPhttps://video.igem.org/lazy-static/thumbnails/24e54912-929d-4b8c-bf7a-52da92b003ac.jpgQHFZ-China: Super-Serum for Engineered Bacteria (2020) - Project Promotion [English]There are two barriers to the utilization of engineered bacteria: Storage and safety. There are many current applications that seek to improve the safety of engineered bacteria. However, there is still a lack of studies on these storage problems. Therefore, our project uses TDPs from the Tardigrades to solve the issue of engineered bacteria storage. If you are interested in our project, please watch our video to get further information! https://2020.igem.org/Team:QHFZ-China ; Sizhe_Duan,Siyuan_Wang,Shao_Chang,Bert_Shan,Bill(Zhandong_Jiao),Xing_Zhang https://static.igem.org/peertube/streaming-playlists/hls/86c9b0e3-866a-4fb8-bf8a-d61bb6b60f11/9b01e437-1d75-4c11-ad6d-1fa48fc97daf-master.m3u8https://video.igem.org/videos/embed/hDn24cL3FNM86L3rnApWMP1190302020-09-25T11:55:57.256ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/5sLDrBiJ29GgoWEtM7qvSKhttps://video.igem.org/lazy-static/thumbnails/55444673-5941-4539-b655-ecee6c07c5db.jpgTUDelft: PHOCUS (2020) - Project Promotion [Spanish]Abstract: Locust plagues currently threaten food security in the Horn of Africa, Arabian peninsula and South Asia, devastating croplands and pasture. We, the TU Delft iGEM team PHOCUS, aim to tackle locust crises by developing a targeted, fast-working and safe bio-pesticide based on engineered bacteriophages. Upon bacteriophage ingestion by the locust, toxic molecules will be produced by targeted bacteria in the locust gut, killing the it from within. Wiki link: https://2020.igem.org/Team:TUDelft Credits: We would like to thank QuickVision for their filming services, and Albert Animations for their help with animating our storyboard and the English voiceover. Creative content done by PHOCUS under the guidance of our supervisors. Other Links: https://www.facebook.com/TUDelft.iGEM2020 https://www.instagram.com/igemtudelft/ https://www.linkedin.com/company/igem-tu-delft/ http://igemtudelft.nl https://twitter.com/tudelft_igem?lang=en https://static.igem.org/peertube/streaming-playlists/hls/2421680d-5afc-4070-9e1c-8853a4c63d93/cbd047ae-265d-4afe-a7e0-e1d86659b434-master.m3u8https://video.igem.org/videos/embed/5sLDrBiJ29GgoWEtM7qvSK1200672020-09-25T12:03:49.137ZFood&NutritionNetherlandsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/gyXgrZRsaVkfz2eoLHg2JShttps://video.igem.org/lazy-static/thumbnails/d51c7689-0dca-4b6a-905d-51a154537d05.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [Spanish]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/7e12f08c-144b-4a1d-8f2c-4a61a1fbdb42/de3f8d6e-a6f7-4e7a-812c-c380c2bc6f5d-master.m3u8https://video.igem.org/videos/embed/gyXgrZRsaVkfz2eoLHg2JS1190422020-09-25T12:04:40.959ZEuropeEnvironmentNetherlandsYES2020 Project PromotionsNOhttps://video.igem.org/w/g2429ikduz6vPePBtx2Gz4https://video.igem.org/lazy-static/thumbnails/b26c4da8-5ca2-4918-8c57-b624df3e39dc.jpgKEYSTONE_A: New Gaoyao Arthritis Cure (2020) - Project Promotion [English]Abstract: Nowadays, more than 355 million people are suffering from Arthritis, without a radical cure. Inspired by traditional Chinese medicine, KEYSTONE_A iGEM team aims to tackle this problem by designing an organic tissue culture. Engineered cells are encapsulated into a bacterial cellulose based substrate, and able to sense disease signals and respond by producing bio-active substances. Such system are expected to provide a long-term and customizable cure for Arthritis. WikiLink: https://2020.igem.org/Team:KEYSTONE_A Credits: VideoLeap, WangJing Elder's House, Moonlight-ANBR, High Flight- Michele Nobler https://static.igem.org/peertube/streaming-playlists/hls/799eaf43-fdcc-482d-97c9-a8886c733355/397d338d-e4cd-4887-b9e0-f3280e69bde7-master.m3u8https://video.igem.org/videos/embed/g2429ikduz6vPePBtx2Gz41190502020-09-25T12:08:24.767ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/c5s74jTNyPidW6VuKEakyXhttps://video.igem.org/lazy-static/thumbnails/6384a420-b45d-4102-95d2-6a2ded7df6e9.jpgTUDelft: PHOCUS (2020) - Project Promotion [Dutch]Abstract: Locust plagues currently threaten food security in the Horn of Africa, Arabian peninsula and South Asia, devastating croplands and pasture. We, the TU Delft iGEM team PHOCUS, aim to tackle locust crises by developing a targeted, fast-working and safe bio-pesticide based on engineered bacteriophages. Upon bacteriophage ingestion by the locust, toxic molecules will be produced by targeted bacteria in the locust gut, killing the it from within. Wiki link: https://2020.igem.org/Team:TUDelft Credits: We would like to thank QuickVision for their filming services, and Albert Animations for their help with animating our storyboard and the English voiceover. Creative content done by PHOCUS under the guidance of our supervisors. Other Links: https://www.facebook.com/TUDelft.iGEM2020 https://www.instagram.com/igemtudelft/ https://www.linkedin.com/company/igem-tu-delft/ http://igemtudelft.nl https://twitter.com/tudelft_igem?lang=en https://static.igem.org/peertube/streaming-playlists/hls/59b39678-2452-422e-954a-917bee6a234b/e7c238c4-3a03-4bcd-9166-eb362a96c873-master.m3u8https://video.igem.org/videos/embed/c5s74jTNyPidW6VuKEakyX1200742020-09-25T12:06:42.655ZFood&NutritionNetherlandsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/r7myPQyQuU6b5B6CQnmbHahttps://video.igem.org/lazy-static/thumbnails/7ba09d20-3c3a-4817-82dc-71af60116252.jpgAthens: MORPHÆ (2020) - Project Promotion [Greek]Abstract: [GREEK] Είμαστε η iGEM Athens και επαναπροσδιορίζουμε τις χημικές βαφές, οι οποίες είναι υπεύθυνες για ρύπανση παγκοσμίως, ενεργειακές δαπάνες και επιφέρουν κινδύνους για την ανθρώπινη υγεία. Εισηγούμαστε την παραγωγή ενός βιώσιμου βιοϋλικού με ιδιότητες δομικού χρώματος. Τα βακτήρια Flavobacteria johnsoniae, τα οποία δημιουργούν ένα δομικά χρωματισμένο βιοφιλμ, θα σχεδιαστούν να παράγουν κυτταρίνη που θα διατηρεί το χρώμα. Η παραγόμενη κυτταρίνη θα μπορεί να χρησιμοποιηθεί ως βιοαποδομήσιμη επίστρωση μεταμορφώνοντας μία πληθώρα επιφανειών και προϊόντων. [ENGLISH] We are iGEM Athens and we are reconsidering chemical dyes, responsible for worldwide pollution, energy waste and human health hazards. We propose the production of a sustainable biomaterial with structural colour properties. A structurally coloured biofilm formed by Flavobacteria johnsoniae will be engineered to excrete cellulose that will retain colour. When extracted, cellulose could be used as a biodegradable coating that “reshapes” a variety of surfaces and products. Credits: We used videos provided as supplementary material in this paper https://rdcu.be/b7EWV, that are licensed under the Creative Commons Licence https://creativecommons.org/licenses/by/4.0/. Morpho Menelaus picture licensed under Creative Commons License https://creativecommons.org/licenses/by-sa/3.0/deed.en and the author is Derkarts Morpho picture licensed under Creative Commons License https://creativecommons.org/licenses/by-sa/4.0/deed.no and the author is Didier Descouens Blue Morpho Butterfly at University of Florida picture licensed under the Creative Commons License https://creativecommons.org/licenses/by-sa/4.0/ and the author is Terry Foote SEM image of a Peacock wing, slant view picture licensed under the GNU Free Documentation License and the author is SecretDisc All other videos/pictures taken from pexels.com / pixabay.com, websites with copyright free material. Music (Copright Free): Music Credit: WORMONO Tr...https://static.igem.org/peertube/streaming-playlists/hls/cb579a74-0e18-485e-a47f-0d44bfc1e8ab/06880f89-bf1f-47b6-8b98-c0f044162f9f-master.m3u8https://video.igem.org/videos/embed/r7myPQyQuU6b5B6CQnmbHa1190582020-09-25T12:19:05.954ZGreeceManufacturingEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/8T5gBS4aK5WG1g5G8icwDWhttps://video.igem.org/lazy-static/thumbnails/86decb23-232d-4c05-b732-02956505f0c0.jpgSHSBNU_China: Strangle locust plague at birth (2020) - Project Promotion [English]Locust swarm is a natural disaster with great harm, so controlling locusts is important and necessary. By accessing the literature, team SHSBNU_China found the locust swarm need to be activated by serotonin and the aggregation pheromone guaiacol. Therefore, the team proposes a design that allows bacteria to express serotonin and guaiacol-decomposing enzymes in the intestine of locusts, which disturbs the locust's gathering behavior and avoid the occurrence of locust swarm eventually. Wiki link:https://2020.igem.org/Team:SHSBNU_China Credits：Zhimeng Zhang,Zirui Wang,Qingyu Liu,Yuhan li,Moqing liang,Boyan Ma,Zhengbang Jiang,Heyang Jiao,Jitong Pan,lan Post Email:licheng@bluepha.comhttps://static.igem.org/peertube/streaming-playlists/hls/3fd188af-8391-4f28-a205-df04458a4af8/76043d53-7886-479d-b0a2-55c04c74fb93-master.m3u8https://video.igem.org/videos/embed/8T5gBS4aK5WG1g5G8icwDW1190322020-09-25T12:19:58.166ZAsiaHighSchoolChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/1kbb8KQhsr3i7x6zjTDuAUhttps://video.igem.org/lazy-static/thumbnails/c92f1577-279f-451b-b531-4fc2bad41d33.jpgPatras: Hippocrates (2020) - Project Promotion [Greek]"Project Hippocrates": We envision MiniLab as a molecular diagnostic device, supported by Artificial Intelligence software, which would show physicians what dosage of every drug, e.g. statins, whose action mechanism is associated with a gene, a patient should take. In that sense, we will be able to achieve reduction of drug’s side effects, in other words personalized medicine, cheaper, faster and more accurate than any other methods tried before. https://2020.igem.org/Team:Patras Iliopoulou Evanthia, Katsarou Vasiliki, Kousteliou Maria, Spanos Dimitrios, Cyrille Sébert, MSP Team https://www.facebook.com/igempatras, https://twitter.com/igempatras, https://www.instagram.com/igempatras/, https://www.linkedin.com/company/igem-patras-2020https://static.igem.org/peertube/streaming-playlists/hls/02ad66eb-0410-4b92-804b-f9c6e86280d0/b052de7a-449d-45de-abed-add7f472835d-master.m3u8https://video.igem.org/videos/embed/1kbb8KQhsr3i7x6zjTDuAU1180482020-09-25T12:20:53.101ZGreeceDiagnosticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/nwZexgzfAAebVHRttz33yRhttps://video.igem.org/lazy-static/thumbnails/fcd4475c-9241-4826-a7d3-552a401fd9af.jpgNanjing_NFLS: MFC (2020) - Project Promotion [English]In this video we talk about basic knowledge about Microbial Fuel Cells, and our the preliminary outline of our project. We are committed to enhancing the efficiency of MFCs by transforming the engineering bacteria through synthetic biology, mainly focusing on overexpression of three genes: nadE, phzM, and rhlA in Pseudomonas aeruginosa. view more in our wiki: https://2020.igem.org/Team:Nanjing_NFLS email our team: henryliu_anrui@163.com sponsors: Snapgene, Mathworks, Zeno Academy, Nanjing Foreign Language School https://static.igem.org/peertube/streaming-playlists/hls/ae637f0e-9190-4165-856b-5db7dea29339/af0407f3-c989-47a6-a87b-bb445c375212-master.m3u8https://video.igem.org/videos/embed/nwZexgzfAAebVHRttz33yR1200352020-09-25T12:23:31.474ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/sjWGytwoKYLboGdyDxwmAyhttps://video.igem.org/lazy-static/thumbnails/7dc00e5f-271f-4177-a396-a8252540e46c.jpgOSA: metZyme (2020) - Project Promotion [English]Abstract: Our project takes inspiration from the harm heavy metal ions do to our environment. We believe there is a need to develop a set of acute, accurate, simple systems to detect heavy-metal ions. After research, we discovered DNAzyme to be an appropriate method because it can perform catalytic purposes, have high sensitivity, selectivity and portability Thus, our project takes base in DNAzyme technology, combined with advanced uses of amplification systems like HTDC Assay, etc. to develop a portable kit which can accurately detect heavy metal ions and alleviate the issue of heavy metal pollution. Wiki link: https://2020.igem.org/Team:OSA Credits: Angel hu, Henry Pan, Michael Liu, Vivien Chen, Teddy Meng, Oscar Sun, Oscar Ji, Jacqueline Yang, Molinia, Louie Lv, Jerry Huang, Jiaheng Lihttps://static.igem.org/peertube/streaming-playlists/hls/d532b3e1-f2b6-4a14-b25a-dffa04cea664/6b653096-3c30-4d34-872c-64581d105c1e-master.m3u8https://video.igem.org/videos/embed/sjWGytwoKYLboGdyDxwmAy1190342020-09-25T12:27:44.427ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/tRbF2c9Df38Km598vTd7sVhttps://video.igem.org/lazy-static/thumbnails/63074769-fce2-48e0-9a81-955848f1b689.jpgSZ-SHD: Insecticidal missile (2020) - Project Promotion [English]We are SZ-SHD, a high school team from Suzhou, China. We have genetically engineered E. coli and made each bacterium into a “biological homing-missile” containing insecticidal proteins which target locusts. When sprayed onto the field, cells lyse and release toxins onto the leaf. Our biopesticide may serve as a more eco-friendlier and commercial alternative than traditional chemical pesticides in pest controls.https://static.igem.org/peertube/streaming-playlists/hls/e184c410-807f-4d33-8d82-f1af368fcbe1/520648c8-1fdb-4128-b8b1-cbe5cf1900e2-master.m3u8https://video.igem.org/videos/embed/tRbF2c9Df38Km598vTd7sV1190452020-09-25T13:12:43.153ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/2yzC3UC2h9pfvpS8Ej5dmqhttps://video.igem.org/lazy-static/thumbnails/cb435afe-3967-42ba-90be-e9607adc5e73.jpgKEYSTONE: NO_PROJECT_TITLE (2020) - Project Promotion [English]KEYSTONE aims to solve the problem of PET plastic pollution in natural tourist attractions due to the lack of coverage by recycling and wast management systems. To degrade PET, we used E.coli to produce ICCG mutation enhanced from leaf-compost cutinase easier in 2020. We also used geraniol synthase and linalool synthase genes to synthesize linalool, making our hardware (trash can) fragrant and attractive. This project also puts a strong emphasis on public education.https://static.igem.org/peertube/streaming-playlists/hls/0ca5a8c9-1d3c-4e3c-8d24-e1c9c9ef9d90/0a3a520e-3439-4c40-a56a-004661ab0a06-master.m3u8https://video.igem.org/videos/embed/2yzC3UC2h9pfvpS8Ej5dmq1190452020-09-25T12:36:28.242ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/4vvUf6HGzJYo64htRJKw4ihttps://video.igem.org/lazy-static/thumbnails/7dd7d2c4-5ce7-40c6-a510-b502f5edf199.jpgTJUSLS_China: PETcrusher (2020) - Project Promotion [English]Abstract: Basing on the structural information of IsPETase, we rationally developed a series of protein engineering strategy using several IsPETase variants that were screened for high thermal stability to improve PET degradation activity. Our project can help to increase the possibility of achieving the biodegradation of highly crystallized PET under high temperature, contributing to solving the environmental and health problems caused by the abuse of PET. Wiki Link: https://2020.igem.org/Team:TJUSLS_China Credits: Aditor： Shuying Wu Scriptist: Yanjiao Lu Art designer: Fanghui Wang Voice casting: Chenyang Jiang Reference guide: Jacob Jin Creative Commons Images: User StarShopping from https://pixabay.com User Clker-Free-Vector-Images from https://pixabay.com User OpenClipart-Vectors from https://pixabay.com User izwarm from https://pixabay.com E-mail：tjusls_china@163.com https://static.igem.org/peertube/streaming-playlists/hls/1c6a698c-5298-429e-8fd6-2efce00ac5af/cf07f3ea-73fb-4088-9658-d3a2f6606aba-master.m3u8https://video.igem.org/videos/embed/4vvUf6HGzJYo64htRJKw4i1180462020-09-25T12:40:22.656ZAsiaEnvironmentChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/3XTXomFhgmUBnWiFWMqHQ6https://video.igem.org/lazy-static/thumbnails/498553e8-8659-467a-bf1c-ffe309dac72e.jpgSZU-China: Jeans love (2020) - Project Promotion [English]Abstract：（It's the silence.)It's a sunny day. A pair of ordinary khaki jeans and its good friend met a pretty blue jeans. Khaki jeans was obsessed with it at first sight, dreaming to be a better one to pursue her. That is why it came to SZU-China Jeans Plastic Surgery Clinic. Through gardenia blue dyeing and cellulase frayed surgery, it got an entirely fresh newlook. Finally they fell in love with each other and lived happily ever after. Wiki Link：2020.igem.org/Team:SZU-China Credits: Produced by: Wenxi Li, Xiaoli Long, Xinyu Li Directed by: Yiming Chen Casting: Yan Huang Executive directer: Zening Xiao Script Writer: Yiming Chen Director of cinematography: Yiming Chen Production designer: Jielin Li Props: Xinyu Liu, Zirui Ou, Shuqi Xu, Ying Xu, Jiaqi Huang Music: Enrico Caruso - Aida - Celeste Aida Other links: https://mp.weixin.qq.com/s/Mp-AxbfUcbZs0vL_67FpXQhttps://static.igem.org/peertube/streaming-playlists/hls/180033f9-a5fc-4899-a36d-3fa73ecf1f39/f0511444-fd60-481e-802e-5d96ce8636e5-master.m3u8https://video.igem.org/videos/embed/3XTXomFhgmUBnWiFWMqHQ610701282020-09-25T13:04:39.427ZAsiaManufacturingChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/ghhNEy8tWoqMheSEyeH5uvhttps://video.igem.org/lazy-static/thumbnails/8c265122-93ae-4ff8-ad24-958bc34aba4d.jpgKSA_KOREA: Ligninator (2020) - Project Promotion [English][Abstract] Hi, we are KSA Korea and this is our team promotional video. Our project is about lignin degradation using bio enzymes that can reduce environmental harm. Through this project, we hope that the environmental harm while making recycled paper reduce and there will be more wildlife in water and less long-term consequences. Our promotional video includes our project motivation, how paper usage affects our everyday lives, the biology behind our project, the impacts of our project. We hope to garner attention towards our project in an entertaining way, through this video. [Wiki Link] https://2020.igem.org/Team:KSA_KOREA [Credits] FEATURING Celine Choi, Leejun Chang, Wendy Kang, Sungjun Kang, David Chang, Daniel Chang, Isabelle Lee MUSIC BY newittmusic (purchased license on Audio Jungle) Illustration(at 00:57,600) Freepik.com <a href="https://www.freepik.com/vectors/school">School vector created by rawpixel.com - www.freepik.com</a> STORY BY Celine Choi, Leejun Chang, Wendy Kanghttps://static.igem.org/peertube/streaming-playlists/hls/7bbf561e-578b-455f-8b1b-30fdb97f84bd/9bcc4e83-f47d-49c3-b128-8d4ed92350aa-master.m3u8https://video.igem.org/videos/embed/ghhNEy8tWoqMheSEyeH5uv1100952020-09-25T13:56:22.530ZAsiaHighSchoolKoreaRepublicOfYES2020 Project PromotionsNOhttps://video.igem.org/w/eUUaUkFs3JtmtANFBgAUD8https://video.igem.org/lazy-static/thumbnails/c7694642-f886-4dd0-a679-7c166a639fc5.jpgBGU-Israel: WIPEOUT (2020) - Project Promotion [English]Abstract: Over the last two decades, the use of wet wipes has become commonplace across the globe. Disposal of wet wipes through the toilet and their accumulation in the sewer systems cause extensive damage; In Israel alone, repairing the wet wipes damage to sewer systems is estimated by 3,360,000$ per year! "Wipeout" presents a leading and innovative solution to this unsolved, global problem of biodegradation of domestic contamination of sewage and water systems. We aim to utilize biological methods, including genetically engineering the sewer systems' bacterial populations, using bacterial surface- display systems. Our final goal is to solve the clogging problems caused by an accumulation of cellulose fibered wipes in sewer systems and prevent a generation of "fatbergs", which are thousands of wipes stacked together with other flushed solids and fats. By finding a solution to this problem we may be able to prevent both ecological and economic damages. Wiki Link: https://igem.org/Team.cgi Credits: Animation- Shalev Ben Elya , Narration- Talia Shaler , Text- Omer Kirshner-Khalaily & Talia Shaler Facebook Link: https://www.facebook.com/iGEMBGUhttps://static.igem.org/peertube/streaming-playlists/hls/70a9a146-0e81-4907-8b6c-138cbcd80499/652e558d-2e28-4998-a3d5-168be2fc28c0-master.m3u8https://video.igem.org/videos/embed/eUUaUkFs3JtmtANFBgAUD810301112020-09-25T12:53:10.581ZEnvironmentIsraelAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/f3GKcg8ZDt1xRWxTFmcUKihttps://video.igem.org/lazy-static/thumbnails/7a5a5486-f90a-420d-b3df-8a7bb611c6dc.jpgECNUAS: T2DM Drug Discovery Platform (2020) - Project Promotion [English]Abstract: There are four hundred million diabetes patient throughout the globally every year. Curing this nasty disease has become a major scientific conundrum. The video provide an introduction to a new and different approach, which is based on a matter named glucocorticoid receptor, to the issue Wiki Link: https://2020.igem.org/Team:ECNUAS Credits: 程一凡 Cathy Cheng 崔瀚文 Ivy Cui 刁丞玠 Eric Diao 李心源 Lee Li 王彦淳 Evan Wang 张仕藻 Tony Zhanghttps://static.igem.org/peertube/streaming-playlists/hls/71c089e2-56e5-40dd-ae70-08383d9025b7/0ca0071c-ddeb-438f-b9fb-fa0f34aa4857-master.m3u8https://video.igem.org/videos/embed/f3GKcg8ZDt1xRWxTFmcUKi1190402020-09-25T12:54:32.862ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/dRB4LJQjf428ot377nWPW1https://video.igem.org/lazy-static/thumbnails/b27f2c54-e0a5-4e26-a8f4-ae2e8ff5975b.jpgJiangnan_China: Battle between Sophorolipid and Cyanobacteria (2020) - Project Promotion [English]ABSTRUCT:Cyanobacteria outbreaks have gradually evolved into a global problem of water pollution. Jiangnan_China has found an eco-friendly biological surfactant that can degrade cyanobacteria effectively. However, the sophorolipid produced by wild-type Starmerella bombicola was a random mix of acid and lactone types. We constructed a CRISPR/Cas9 gene-editing system in Starmerella bombicola, in order to obtain a high yield of sophorolipid and a definite ratio of two types to achieve the maximum degradation efficiency of cyanobacteria. WIKI:https://2020.igem.org/Team:Jiangnan_China CREDITS:Jiangnan_China: Ruoqing Yang Nuowen Mai Jiahua Fang Hongyu Ren Jieyu Chu Anqi Peng Pengwei Wang Ying Zhang* Ruoxuan Lv Chao Liao Jiangnan Teachers: Yuanyuan Xia Jingrui Hou Production company: ZIBO-Six-ArtTv culture media Co., Ltd Production personnel: Ying Zhang* (Two Ying Zhang* are different people that belongs to different team and did different work.) RF Pictures（Author/Source） ·Capelle.r / Getty Creative https://www.vcg.com/creative/1261152235 ·Lane Oatey / BJI蓝牛仔 https://www.vcg.com/creative/813499433 ·Douglas Sacha / Getty Creative https://www.vcg.com/creative/1157744341 ·Kesinee Srisura / EyeEm / Getty Creative https://www.vcg.com/creative/1175778707 ·Mike Hill / Getty Creative https://www.vcg.com/creative/807741739 RF Music（Author/Name） ·MINOR2GO / M2G Mix-Pipa https://www.looperman.com/loops/detail/36651 ·赫拉克罗斯 / 金属弹簧的声音 https://www.ear0.com/sound/12028 ·鱼的第五秒记忆/ 空中挥杖 https://www.ear.0.com/sound/11914 ·More RF Music https://www.baidu.com/link?url=LZudyCopBr1cWuGZBOP-DPmGIrDUVsI7HFs03rsEfqdLsnoX27h7gE2jNlJgTJ-K&wd=&eqid=c937e2d1000261e7000000055f6db1c7https://static.igem.org/peertube/streaming-playlists/hls/681ab7de-7703-49d5-967d-9b47117373d8/20ac752e-93da-4062-8c5b-5e218035fae5-master.m3u8https://video.igem.org/videos/embed/dRB4LJQjf428ot377nWPW112001722020-09-25T13:28:06.531ZChinaAsiaManufacturingYES2020 Project PromotionsNOhttps://video.igem.org/w/vQgR9yeMAHXg8W9EGycQDthttps://video.igem.org/lazy-static/thumbnails/9fe7d838-f3d1-406e-a21d-e811e0c3d7be.jpgFSU: SPLASH (2020) - Project Promotion [English]This year, FSU’s iGEM team is tackling antibiotic resistance in Florida’s waterways. The decision to find a solution for antibiotic resistance arose from a longitudinal study on the Indian River Lagoon that found antibiotic resistant bacteria on dolphins in increasing amounts over a 10-year period. The solution aims to degrade a specific antibiotic in wastewater treatment plants to reduce selective pressures on the environment. https://2020.igem.org/Team:FSU/Promotion Credits: Directed by: Kelly Bacherman Narration: Sarah Fuller Edited by: Kelly Bacherman Script: Kelly Bacherman Jennifer Roque Sarah Fuller Miguel Sarenas https://static.igem.org/peertube/streaming-playlists/hls/f1967d07-1011-4548-ab2e-9c4240e45375/d434e5e8-af16-4d07-a5e1-013e2da819a0-master.m3u8https://video.igem.org/videos/embed/vQgR9yeMAHXg8W9EGycQDt1190612020-09-25T13:03:07.726ZEnvironmentNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/cCN6GizyyteisgGGUzYkxbhttps://video.igem.org/lazy-static/thumbnails/9f7e76c1-2b33-4ca1-aa61-1199da35e83b.jpgBeijing_4ELEVEN: Acneutralizer (2020) - Project Promotion [English]Abstract: The most common treatments of acne vulgaris--a common skin disease--include antibiotics, which induce worsening microbial resistance. Antimicrobial peptides are a great alternative of antibiotics for their effectiveness against bacteria and unlikeliness of invoking resistance, but are commercially produced via chemosynthesis, a method costly and not very effective. We aim to produce antimicrobial peptides, adhesive/cohesive proteins, and tyrosinase through biosynthesis, and develop a product that forms an acne curing film when applied to skin. Wiki Link: **https://2020.igem.org/Team:Beijing_4ELEVEN** Credits: *Heyuan Ni, Shizhuo Xu, Yuchu Wang, Yuchen Zhang, Yihan Qi, Yuting Yang, Jiawei Zhou, Ruijuan Xiang, Siyu Jiang, Borong Liang Background Music: Time Out - Atch https://soundcloud.com/atch-music Creative Commons — Attribution 3.0 Unported — CC BY 3.0 Free Download / Stream: http://bit.ly/l-time-out Music promoted by Audio Library https://youtu.be/NPnLxESfv50* Other Links: **http://mp.weixin.qq.com/profile?src=3&timestamp=1600971511&ver=1&signature=On4ZFgeO5sJHH1IKPQHXqVsy6Osp7zg5j1DFvXKMcFuFoebMDhpEmNAdTqR0YRUUfHuVYtVkkqv4aTcFsDe2ZQ==**https://static.igem.org/peertube/streaming-playlists/hls/5e37b5c2-634a-476c-833f-36a10b027a0c/2828f98b-6514-4c9a-b088-bd55ccf9de51-master.m3u8https://video.igem.org/videos/embed/cCN6GizyyteisgGGUzYkxb12001682020-09-25T13:18:05.677ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/jZdCRDLNQRSCNUVjD11QY6https://video.igem.org/lazy-static/thumbnails/016b9964-b107-4b55-8b70-f78652afd8ca.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [Russian]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/99c1ad79-f345-4a69-b338-359fc25f5095/b7876f54-5d3b-4911-8dde-6c4eb7702a46-master.m3u8https://video.igem.org/videos/embed/jZdCRDLNQRSCNUVjD11QY6119032020-09-25T13:20:20.121ZEnvironmentEuropeNetherlandsYES2020 Project PromotionsNOhttps://video.igem.org/w/9SHcyktu8Ly5CNG6TDbLs3https://video.igem.org/lazy-static/thumbnails/bc9b9d2f-9f5b-47dc-983a-97bc45920377.jpgECUST_China: DEtector (2020) - Project Promotion [English]Abstract: Our protagonist, the little doctor, feeling depressed when facing the terrible COVID-19. When he accidentally found an insect net, he suddenly had an inspiration. He caught the virus with a net, then sent it to a factory, in which its nucleic acid is detected, translated, and turned into electrical signal. This small factory formed a detection machine. In the detection point, a nurse received the machine, quickly detected a group of people. That have detected the virus will receive timely treatment. Wiki Link: 2020.igem.org/Team:ECUST_China Credits: Screenwriter: Yihan Liu, Yanzhe Cheng; Animator: Wenxin Lian; Film Editing: Xiuao Wang; Dubber: Yi Ju Email: xingyz@mail.ecust.edu.cn;https://static.igem.org/peertube/streaming-playlists/hls/47ddb00f-1cdd-4afb-aea7-19828eb36916/e4ec309d-cde7-4537-8fdd-95cb75ec605a-master.m3u8https://video.igem.org/videos/embed/9SHcyktu8Ly5CNG6TDbLs31090702020-09-25T13:21:05.364ZNewApplicationAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/nuGK1R3vkYqE9JsNv7z1o2https://video.igem.org/lazy-static/thumbnails/ce2cecf8-881f-4f55-a21d-7b29c5ea9d3b.jpgUCAS-China: SHEEP (2020) - Project Promotion [English]Helicobacter pylori(H. pylori), one of the Group 1 Carcinogen, have infected more than half of the people worldwide. We designed SHEEP, which can guide the H. pylori-stomach symbiosis to robust homeostasis by introducing engineered bacteria into the equilibrium. https://2020.igem.org/Team:UCAS-China Sixuan Li; Yuqin Kewang; Chutian Chen; Guanyu Chen; Zhichen Guohttps://static.igem.org/peertube/streaming-playlists/hls/ae11d868-5176-4211-ab63-c24ca2558825/ebad233b-ad66-4996-8a64-165737c756f0-master.m3u8https://video.igem.org/videos/embed/nuGK1R3vkYqE9JsNv7z1o21200262020-09-25T13:22:02.669ZTherapeuticsAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/cYkPDbWPFFbpdeyVLhvzFPhttps://video.igem.org/lazy-static/thumbnails/d07dd5ca-bf1a-4223-a0fb-02d0eecbbe91.jpgVirginia: Manifold- Nanoreactors for Chemical Synthesis (2020) - Project Promotion [English]Biologics are an increasingly important part of the pharmaceutical and chemical synthesis industries. However, impediments exist to the continued growth of this field. Many of these issues can be combatted with the Manifold system. Manifold improves the capacity and efficiency of biological synthesis by utilizing bacterial microcompartments and nucleic acid scaffolds to compartmentalize and control enzymatic pathways within prokaryotic chassis. https://2020.igem.org/Team:Virginia Artwork- Veronica Gutierrez Animations- Sophia Link 3D Graphics- Jacob Polzin Voice Over- Eddie Micklovic Editing- Collin Marino Instagram: https://www.instagram.com/igem.at.uva/?hl=en Twitter: https://twitter.com/Virginia_iGEMhttps://static.igem.org/peertube/streaming-playlists/hls/60f26449-d32b-4fb3-abe3-709d888615f1/3f47a9b8-9741-4468-bb41-1967ec7a519a-master.m3u8https://video.igem.org/videos/embed/cYkPDbWPFFbpdeyVLhvzFP11901182020-09-25T13:27:16.083ZNorthAmericaManufacturingUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/7xPDhtydTgiUj4gbCYM32Yhttps://video.igem.org/lazy-static/thumbnails/1cd41ce3-ec14-4e90-9035-df3e275cf2b7.jpgTsinghua-A: DNA storage medical database (2020) - Project Promotion [English]Abstract: Want a brand new way dealing with medical data? We are providing such an idea. DNA storage is a storage media for the future and we are presenting a good way of using it. More information coming soon! Wiki link:https://2020.igem.org/Team:Tsinghua-A Credits: All members of Team:Tsinghua-A https://static.igem.org/peertube/streaming-playlists/hls/35083ff0-ada8-40f6-b72c-b3d8cff134c2/eac8af7c-1765-4ecb-8367-f01e810234f3-master.m3u8https://video.igem.org/videos/embed/7xPDhtydTgiUj4gbCYM32Y12001332020-09-25T13:28:25.186ZInformationProcessingAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/mqV3853B1wcKmq9y7hQXTnhttps://video.igem.org/lazy-static/thumbnails/d22e25df-5f1d-4e05-aa86-4a74bee636aa.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [Swedish]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/a5714f02-c836-4c69-a3af-d7bdec57789f/b926f5a6-1261-4486-b285-a9a23c0d2f16-master.m3u8https://video.igem.org/videos/embed/mqV3853B1wcKmq9y7hQXTn119012020-09-25T13:29:43.932ZEuropeNetherlandsEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/mJ9TJ1xgpBAVjTH2LNr1b2https://video.igem.org/lazy-static/thumbnails/0178ed9e-c631-4f74-b87b-6a6c59851f05.jpgNUDT_CHINA: Predator Pro system (2020) - Project Promotion [English]Here we present ‘Predator Pro’, a targeted protein degradation system controlled by exogenous signals such as small molecules. As a follow-up work of our iGEM 2018-2019 projects, ‘Predator Pro’ provides direct and precise control of target protein degradation in a timely and dose-dependent manner. We believed our work further expands the synthetic biology toolbox and helps researchers to better manipulate cellular protein abundance effectively and precisely. https://2020.igem.org/Team:NUDT_CHINA Lingyun Zhu,Xinyuan Qiu,Chuanyang Liu,Tianyi Zhang,Yuxin Liu,Yulan Chen,Linjie Li,Junzi Gu,Guixian Li lingyunzhu@nudt.edu.cn zhangtianyi17@hotmail.com https://static.igem.org/peertube/streaming-playlists/hls/a7d97dc6-2c87-420c-a64d-5bf9aceef04d/d3dabe46-a996-41ee-bd76-84c417111eed-master.m3u8https://video.igem.org/videos/embed/mJ9TJ1xgpBAVjTH2LNr1b21180412020-09-25T13:31:39.202ZFoundationalAdvanceAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/648sVrDy9tjrhPAmgMGd3ghttps://video.igem.org/lazy-static/thumbnails/8ad0b04b-b431-4acc-8ed4-24530522616b.jpgWHU-China: The Negotiator (2020) - Project Promotion [English]Abstract:Focusing on the horrible pandemic this year, we WHU-China iGEMers want to make our own contributions to deal with some potential risks in it. This video firstly describes the certain problem we aim at---the ventilator-associated pneumonia. Then it follows with the solutions we put forward, that is, creating an engineering probiotic with the utilization of quorum quenching enzymes and chemokines. It ends with the impact that our project may have on the medical field. wiki link:https://2020.igem.org/Team:WHU-China Credits:we appreciate the work of:our team members:Jiayang Li,Shichen Tang, Dingchen Yu, Luyang Li Yipeng Xie;our classmates: Yutong Zhou, Haowen Tan;Dr.Zhiyong Peng and Zhong Nan Hospital of Wuhan University.https://static.igem.org/peertube/streaming-playlists/hls/28ed8649-ca2f-4b24-a880-5a4f8c3619a3/b0ee45c0-ceb5-410a-b118-d94eb260d9b2-master.m3u8https://video.igem.org/videos/embed/648sVrDy9tjrhPAmgMGd3g1170352020-09-25T13:35:15.224ZAsiaChinaTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/a5Vyyg8ZCSzeZNxtXCZjnchttps://video.igem.org/lazy-static/thumbnails/19fea22a-05d1-4e55-a269-73edc8f17cb0.jpgTsinghua: NO mediated biofilm allayer (2020) - Project Promotion [English]The project of Tsinghua 2020 iGEM group, NO mediated biofilm allayer(NBA), is purposed to utilize engineered E.coli to produce signal molecule nitric oxide to remove the biofilm of P.aeruginosa. when this spy germ senses the QS molecule BHL from P.aeruginosa bioflim, it is expected to be activated and express exogenous gene NOS(Nitric Oxide Synthase), producing NO and leading to the dispersion of biofilm. With the great advantages of synthetic biology techniques, the project NBA aims to provide a feasible solution to P.aeruginosa biofilm contamination in industry and household devices. Wiki website: https://2020.igem.org/Team:Tsinghua E.mail: zengql18@mails.tsinghua.edu.cnhttps://static.igem.org/peertube/streaming-playlists/hls/49923b39-ec64-4df6-b5d8-7bc48b1e221d/b14b463b-2ae8-40b2-96d2-98c6eddf8f0a-master.m3u8https://video.igem.org/videos/embed/a5Vyyg8ZCSzeZNxtXCZjnc1170532020-09-25T13:44:07.627ZAsiaChinaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/uWdjmSXyKMQaS83nDUxeg4https://video.igem.org/lazy-static/thumbnails/e93153af-c229-4a1c-b0e7-1ed8a1e65ad9.jpgParis_Bettencourt: SynDerma (2020) - Project Promotion [English]Presenting our project: SynDerma, imagining skin biotherapeutics from engineered skin microbes. We wondered whether pandemic-born habits affect the skin microbiome and lead to dysbiosis, so we organized a volunteer-based European DNA sequencing study.This would generate a dataset of the pandemic skin microbiome. Staphylococcus aureus is abundant in many skin disorders and Staphylococcus epidermidis regulates it. We’re making S. epidermidis a synthetic biology chassis for the skin microbiome by developing a MoClo toolkit for it. https://2020.igem.org/Team:Paris_Bettencourt Credits: Sketching: Amandine Maire Colouring and Animation: Subham Choudhury Scripting and narration (English): Valerie March Translation and narration (French): Nikola Zarevski Translation and narration (Hindi):Anu Susan Kurian Editing: Subham Choudhury & Nikola Zarevski Videography: Subham Choudhury Actors: Nicolas Levrier, Anu Susan Kurian, Valerie March, Amandine Maire Animation advisor: Alexis Cassas https://static.igem.org/peertube/streaming-playlists/hls/ea51a2eb-615e-4d24-a620-2637887f07b5/c21d865b-058f-48fc-816a-d24c655d1e56-master.m3u8https://video.igem.org/videos/embed/uWdjmSXyKMQaS83nDUxeg41180622020-09-25T13:38:07.298ZFranceFoundationalAdvanceEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/fo7XGSBwxAVqmqiDFnBphbhttps://video.igem.org/lazy-static/thumbnails/d5c09888-2557-49cf-9030-92065dc05d36.jpgTU_Kaiserslautern: Microdestruction (2020) - Project Promotion [English]Description: Diclofenac and other micropollutants accumulate in wastewater due to overuse, contaminating the environment. The current treatments available are expensive and complex, however Team Kaiserslautern’s vision is to make this process efficient and cost effective through the use of genetic engineering. Our iGEM project involves the modification of the green algae Chlamydomonas reinhardtii, enabling the chemical decomposition of diclofenac with inserted laccase, leading to its functional inactivation. Help us build cleaner future for you and me! Wiki Link: https://2020.igem.org/Team:TU_Kaiserslautern Credits: Music: Better Times - GEMAfreie Musik von https://audiohub.de/ Creative Minds - https://www.bensound.com/royalty-free-music/track/creative-minds Created by: Richelle Avers (Actress, 2nd Voice (en)), Emily Becker (Actress, Animation, Drawing), Daniel Brady (Actor, 1st Voice (en)), Nicolas Freche (Actor, Editor), Allyssa Hinkle (Subtitles (en), Description), Linda Müller (Actress, 1st Voice (ger), Subtitles (ger)), Helena Schäfer (Actress, 2nd Voice (ger)), Yannik Schermer (Actor) Other Links: https://www.uni-kl.de/hochschulgruppen/iGEM/en/home-en/ Instagram: @igem.kaiserslautern Facebook: @igem.kaiserslautern twitter: @iGEM_TUKLhttps://static.igem.org/peertube/streaming-playlists/hls/747697fc-602c-4c15-89ea-f047100664ce/4b3008af-9995-4114-a949-b66735fe283a-master.m3u8https://video.igem.org/videos/embed/fo7XGSBwxAVqmqiDFnBphb12001362020-09-25T14:17:26.504ZEnvironmentEuropeGermanyYES2020 Project PromotionsNOhttps://video.igem.org/w/mpdL3m9MyAaqkEDaWQVUnYhttps://video.igem.org/lazy-static/thumbnails/b79ca331-3b52-4179-b24b-0c0efaa17991.jpgParis_Bettencourt: SynDerma (2020) - Project Promotion [French]Presenting our project: SynDerma, imagining skin biotherapeutics from engineered skin microbes. We wondered whether pandemic-born habits affect the skin microbiome and lead to dysbiosis, so we organized a volunteer-based European DNA sequencing study.This would generate a dataset of the pandemic skin microbiome. Staphylococcus aureus is abundant in many skin disorders and Staphylococcus epidermidis regulates it. We’re making S. epidermidis a synthetic biology chassis for the skin microbiome by developing a MoClo toolkit for it. https://2020.igem.org/Team:Paris_Bettencourt Credits: Sketching: Amandine Maire Colouring and Animation: Subham Choudhury Scripting and narration (English): Valerie March Translation and narration (French): Nikola Zarevski Translation and narration (Hindi):Anu Susan Kurian Editing: Subham Choudhury & Nikola Zarevski Videography: Subham Choudhury Actors: Nicolas Levrier, Anu Susan Kurian, Valerie March, Amandine Maire Animation advisor: Alexis Cassas https://static.igem.org/peertube/streaming-playlists/hls/a534be3d-0f31-459d-9c64-ec1cd6d85612/29e8d221-f768-4f81-89a2-8fc70ed5cff3-master.m3u8https://video.igem.org/videos/embed/mpdL3m9MyAaqkEDaWQVUnY1180162020-09-25T13:40:35.040ZEuropeFranceFoundationalAdvanceYES2020 Project PromotionsNOhttps://video.igem.org/w/jaXkzaTGciMEvNQJMAWce4https://video.igem.org/lazy-static/thumbnails/f83e775e-78d5-4de5-ba94-372623e68e3c.jpgTongji_Software: Synthesis navigator (2020) - Project Promotion [English]Synthesis navigator is an integrated synthetic biology assistant design platform, including Synthetic Bay database, Pathway Finder and Hybrid metabolic simulation (HMS). It can help synthetic biology researchers use the components in synthetic biology better, search and select the required metabolic pathways, and finally make use of the metabolic simulation function to predict the metabolic changes to save the time of wet experiments. https://2020.igem.org/Team:Tongji_Software Support: School of Life Science and Technology of Tongji University: Dr. Jing Zhang, Dr. Ye Leng, Dr. Ping Li, Dr. Hongbing Wang, Dr. Shaorong Gao, Dr. Chong Li, Dr. Jiayu Chen, Dr. Chao Zhang,Dr. Changsheng Du, Tongji_China Advisors: Bo Xu,Feiyang Xing,Huili Shi The Crew: Director & Shooting Script & Animation Huidi Zhu,Yexin Xu script Chunfu Xiao,Jun Zhu,Wenyuan Jiang BGM Barton Springs-Bird Creek-YouTube Audio Libraryhttps://static.igem.org/peertube/streaming-playlists/hls/93284aef-e50c-40e7-84bb-edf5f1a88fb1/39f576cb-76d0-4f50-bb1c-67fae82c0acd-master.m3u8https://video.igem.org/videos/embed/jaXkzaTGciMEvNQJMAWce41100472020-09-25T13:56:52.621ZAsiaChinaSoftwareYES2020 Project PromotionsNOhttps://video.igem.org/w/n9i81ZXqNpC7UF62kUcQz9https://video.igem.org/lazy-static/thumbnails/65493dbb-ce17-48c6-911f-7d749a9d212b.jpgParis_Bettencourt: SynDerma (2020) - Project Promotion [Hindi]Presenting our project: SynDerma, imagining skin biotherapeutics from engineered skin microbes. We wondered whether pandemic-born habits affect the skin microbiome and lead to dysbiosis, so we organized a volunteer-based European DNA sequencing study.This would generate a dataset of the pandemic skin microbiome. Staphylococcus aureus is abundant in many skin disorders and Staphylococcus epidermidis regulates it. We’re making S. epidermidis a synthetic biology chassis for the skin microbiome by developing a MoClo toolkit for it. https://2020.igem.org/Team:Paris_Bettencourt Credits: Sketching: Amandine Maire Colouring and Animation: Subham Choudhury Scripting and narration (English): Valerie March Translation and narration (French): Nikola Zarevski Translation and narration (Hindi):Anu Susan Kurian Editing: Subham Choudhury & Nikola Zarevski Videography: Subham Choudhury Actors: Nicolas Levrier, Anu Susan Kurian, Valerie March, Amandine Maire Animation advisor: Alexis Cassas https://static.igem.org/peertube/streaming-playlists/hls/ab3869c7-a727-4cb5-afff-16eb719551da/4cd946b1-21b1-40d3-beef-9d2ed2f222d5-master.m3u8https://video.igem.org/videos/embed/n9i81ZXqNpC7UF62kUcQz91180122020-09-25T13:44:07.075ZFranceEuropeFoundationalAdvanceYES2020 Project PromotionsNOhttps://video.igem.org/w/o4Gmmdi4ReqsL4oY3WvsnKhttps://video.igem.org/lazy-static/thumbnails/79e6cf95-c533-4c1f-824c-4aeac8150d42.jpgHeidelberg: The Legend of Cellda (2020) - Project Promotion [German]Abstract: Unser Ziel ist es, eine dynamische Toolboox zu schaffen, die der wissenschaftlichen Gemeinschaft die Werkzeuge für die RNA- und Protein-vermittelte Zellregulation zur Verfügung stellt. Dabei wollen wir die folgenden modularen Interaktionen angehen: 1. RNA-geführte RNA-Modifikation 2. RNA-RNA-Interaktion 3. RNA-Protein-Wechselwirkung 4. Protein-Protein-Wechselwirkung Diese Module können verwendet werden, um Cas-less Gen-Editing und verschiedene Werkzeuge für industrielle und therapeutische Anwendungen zu implementieren. Wiki-Verknüpfung: https://2020.igem.org/Team:Heidelberg Credits: Mitglieder des Teams (In der Reihenfolge ihres Erscheinens): Mario Wisbar, Lucas Arnoldt, Jannik Berger, Julia Langer Voice Over: Angela Maidhof Skript: Fabian Bradic, Wangjun Hu, Lucas Arnoldt Kamera: Fabian Bradic und Lucas Arnoldt Video-Bearbeitung: Fabian Bradic und Wangjun Hu Entwurf: Fabian Bradic Animationen: Wangjun Hu Direktor: Fabian Bradic Hintergrundmusik: ‘Video Game Music -”Fix The Gear”’ von Oscar Owl Andere Links: Instagram: https://www.instagram.com/igem.heidelberg/ Twitter: https://twitter.com/igemhd YouTube: https://www.youtube.com/channel/UCc3vCrkwT8bKnXXBI0TXhsAhttps://static.igem.org/peertube/streaming-playlists/hls/b2ad261f-5ab9-48e9-9083-4a57a2d195bd/f685df5e-17e7-4fcf-89d9-a1d4f77a0f65-master.m3u8https://video.igem.org/videos/embed/o4Gmmdi4ReqsL4oY3WvsnK1190382020-09-25T13:48:36.557ZFoundationalAdvanceEuropeGermanyYES2020 Project PromotionsNOhttps://video.igem.org/w/udkoujF4n4QinLEJnXHCtchttps://video.igem.org/lazy-static/thumbnails/ea5a13cb-355e-46d0-b1f9-060f0c4949be.jpgSorbonne_U_Paris: The Chlamy Cleaner (2020) - Project Promotion [English]We, the iGEM Sorbonne team, are proud to live in one of the most charming European cities: Paris. However, we are genuinely concerned that our beloved river, the Seine, is severely polluted by pesticides and therapeutics molecules. Working on an ecological solution, our team designed an algae filter that will destroy these toxic compounds. This video will introduce you to our project The Chlamy Cleaner. Wiki : Sorbonne_U_Paris : The Chlamy Cleaner (2020) - Project Promotion video [English] Credits : A IGEM Sorbonne Team Film Cast: Evelia Plantier Béatrice Urbah Manon Brogniez Pierre Foucault Antonin Chevenier Gabriel Chemin Thomas Champcommunal Juliette Perrault Charlotte Joly Juliette Mandelbrojt Lorenzo Colombo Chloé Piriou Alexandra Teyssou Voice over : Alexandra Teyssou Music : Gabriel Chemin Editing : Lorenzo Colombo Twitter : https://twitter.com/Igemsorbonne Facebook : https://www.facebook.com/igem.sorbonne/ Instagram : https://www.instagram.com/igemsorbonne2020/ Linkedin : https://www.linkedin.com/company/igem-sorbonne-université/ Youtube : https://www.youtube.com/channel/UCX0PeGrgm5Znq2JDkF0GWEg?view_as=subscriber Thanks for watching ! https://static.igem.org/peertube/streaming-playlists/hls/e478c17e-3d45-49c5-a688-3ddeaed8bbb1/3bcdcffa-fc4d-4129-b767-5d004cd2a562-master.m3u8https://video.igem.org/videos/embed/udkoujF4n4QinLEJnXHCtc12001272020-09-25T13:57:56.967ZFranceEnvironmentEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/igs1jN3xCFKCzeWBkf6TkHhttps://video.igem.org/lazy-static/thumbnails/b216f195-3462-4de9-a736-2e31b3d1ad1a.jpgBNDS_China: BACLOTH (2020) - Project Promotion [English]Abstract: We designed artificial leathers by using bacterial cellulose as the backbone concerning its excellent structural strength and flexibility to ensure the tenacity of our artificial leather. Also, bacterial cellulose was modified by three structural proteins known as spider fibroin, elastin-like polypeptide, and collagen-like protein, which gives artificial leathers special properties. Wiki Link: https://2020.igem.org/Team:BNDS_China Credits: Wanji Li, Chonye Han, Lixing Wang, Xiaoyang Hua, Ruorui Zhang, Lihan Lin, Yuyue Jiang, Yijia Zhang, Xiaoda Zhang, Wenfei Xiao, Yuyan Chen, Xinyu Zhang, Nuo Shi, Jingcheng Yu, Haoxuan Yin, Keru Tang, Yiqi Chen, Shuyan Wu, Qiyu Fu, Ms. Hu, Mr. Gong, Bluepha Lab, Sugar Plus Ferry Email: bndschinaigem@outlook.comhttps://static.igem.org/peertube/streaming-playlists/hls/8bd38a4f-ed47-4c98-b21e-96637e8287eb/66c1212f-a934-4e3c-8739-13eba07850d1-master.m3u8https://video.igem.org/videos/embed/igs1jN3xCFKCzeWBkf6TkH11801142020-09-25T14:03:01.597ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/sRxK6SqpWocYHs2j4p5jfDhttps://video.igem.org/lazy-static/thumbnails/37b27e0c-56d2-4715-ad12-b8abb7aab769.jpgKUAS_Korea: NO_PROJECT_TITLE (2020) - Project Promotion [Korean]Abstract: In order to solve the problem of the conventional method that continuous management is difficult, the team kuas made possible quick follow-up by using a light-emitting sticker. Wiki Link: https://2020.igem.org/Team:KUAS_Korea/ Credits: KUAS_Korea Teamhttps://static.igem.org/peertube/streaming-playlists/hls/d9789cbe-b548-4229-8fae-af476dcebcc9/24bc268d-962a-41bd-adc9-d799f7462a4a-master.m3u8https://video.igem.org/videos/embed/sRxK6SqpWocYHs2j4p5jfD960122020-09-25T14:04:03.142ZOpenAsiaKoreaRepublicOfYES2020 Project PromotionsNOhttps://video.igem.org/w/ebowZzorZX1Sxkiau2kdKShttps://video.igem.org/lazy-static/thumbnails/f327e3d6-735f-4708-ba96-1ab12ffdf963.jpgNCTU_Formosa: E. Hybrid (2020) - Project Promotion [English]What makes the invader risk his life to get? The answer is a SPECIAL strain of E. coli, E. Hybrid, which not only consumes glucose but also sustains itself with Solar power as Producers do and produce protein Efficiently. E. hybrid serves as a fundamental strain that can be Customized for recombinant gene expression, necessitating its potential for ATP-required reactions in Incorporative and Applicative metabolic engineering and thus paving avenues for Limitless daily creative usages. Wiki link : https://2020.igem.org/Team:NCTU_Formosa Directors : Toby Yu, Stanley Lin Editor : Toby Yu Actors : Stanley Lin, Ryan Hsu, Lin Tsai, Eric Kao Music : thunderbird-ryan-taubert-musicbed-licensed https://www.musicbed.com/songs/earthquake/42820 Instagram : https://www.instagram.com/nctu_formosa_igem/ Facebook : https://www.facebook.com/NCTUFormosahttps://static.igem.org/peertube/streaming-playlists/hls/6aba20a8-7692-4a62-94af-9bd8e94c7ee8/b1eab577-938b-4714-bacb-fdf51412e98b-master.m3u8https://video.igem.org/videos/embed/ebowZzorZX1Sxkiau2kdKS12003312020-10-16T12:45:07.793ZFoundationalAdvanceAsiaTaiwanYES2020 Project PromotionsNOhttps://video.igem.org/w/qE8ydNeYAUvEMsb9aDpfr1https://video.igem.org/lazy-static/thumbnails/43eed3bd-f3ef-4d3b-b393-b0185035d779.jpgAmsterdam: Forbidden Fruits (2020) - Project Promotion [English]We're Team Amsterdam and we're challenging the current limitations of biotechnology with our algorithm "Forbidden Fruits". This algorithm delivers strategies to make industrial biotech systems more sustainable and scalable through the growth coupled production of non-native metabolites.https://static.igem.org/peertube/streaming-playlists/hls/c7ae3f52-f3c0-4ca9-83c8-88ef3865a42a/684ed109-efc1-4a26-b88d-fdf2ef5515d0-master.m3u8https://video.igem.org/videos/embed/qE8ydNeYAUvEMsb9aDpfr112003872020-09-25T14:06:56.792ZNetherlandsInformationProcessingEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/wF5kBjw8dTjpFP32vpfTurhttps://video.igem.org/lazy-static/thumbnails/a174b8a0-d954-4500-9f16-8936c5cce487.jpgIISER_Bhopal: Curing Diabetes With The BIG PIE (2020) - Project Promotion [English]The BIG PIE is an alternate diabetes therapy that aims to replace the need for insulin injections in diabetes patients. With the help of a bacterial delivery vector, we are reprogramming crypt cells in the gut to beta islet-like cells, capable of producing insulin in response to blood glucose. Let’s Tackle Diabetes Without Insulin Injections! Wiki Link: 2020.igem.org/Team:IISER_Bhopal Credits: Sukrit Chawla, Siddharth Shete Instagram: https://www.instagram.com/igem_iiserb/?hl=enhttps://static.igem.org/peertube/streaming-playlists/hls/f866d71b-ebbe-43b1-941c-cef802e18e9d/b4633466-2511-4a61-9790-907844f7b2ae-master.m3u8https://video.igem.org/videos/embed/wF5kBjw8dTjpFP32vpfTur1000772020-09-25T14:28:26.431ZAsiaIndiaTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/asnjqU3NnSofgK2eQZ11QLhttps://video.igem.org/lazy-static/thumbnails/273c0fa9-a9e0-4c07-a15c-2bf486d79be2.jpgTU_Kaiserslautern: Microdestruction (2020) - Project Promotion [German]Description: Diclofenac and other micropollutants accumulate in wastewater due to overuse, contaminating the environment. The current treatments available are expensive and complex, however Team Kaiserslautern’s vision is to make this process efficient and cost effective through the use of genetic engineering. Our iGEM project involves the modification of the green algae Chlamydomonas reinhardtii, enabling the chemical decomposition of diclofenac with inserted laccase, leading to its functional inactivation. Help us build cleaner future for you and me! Wiki Link: https://2020.igem.org/Team:TU_Kaiserslautern Credits: Music: Better Times - GEMAfreie Musik von https://audiohub.de/ Creative Minds - https://www.bensound.com/royalty-free-music/track/creative-minds Created by: Richelle Avers (Actress, 2nd Voice (en)), Emily Becker (Actress, Animation, Drawing), Daniel Brady (Actor, 1st Voice (en)), Nicolas Freche (Actor, Editor), Allyssa Hinkle (Subtitles (en), Description), Linda Müller (Actress, 1st Voice (ger), Subtitles (ger)), Helena Schäfer (Actress, 2nd Voice (ger)), Yannik Schermer (Actor) Other Links: https://www.uni-kl.de/hochschulgruppen/iGEM/en/home-en/ Instagram: @igem.kaiserslautern Facebook: @igem.kaiserslautern twitter: @iGEM_TUKLhttps://static.igem.org/peertube/streaming-playlists/hls/4c90b936-7c2e-40a8-bffb-ff57b16d965c/353960e3-1d62-463c-a6a0-f2451313c9c7-master.m3u8https://video.igem.org/videos/embed/asnjqU3NnSofgK2eQZ11QL1200272020-09-25T14:14:49.452ZEuropeEnvironmentGermanyYES2020 Project PromotionsNOhttps://video.igem.org/w/6paQDozg1EBg6fcEbmLSUUhttps://video.igem.org/lazy-static/thumbnails/198612ad-a423-4b40-adc4-8d5f9d62d276.jpgAUC-EGYPT: A therapeutic solution for SARS-CoV2 (2020) - Project Promotion [English]For the very first time, AUC-Egypt is participating in iGEM. And what better way to participate in iGEM 2020 than by designing a COVID19 therapeutic solution. Our circuit can sense the presence of Sars-Cov2 mRNA via a toehold switch, triggering an interference pathway. The circuit is delivered in a Sars-Cov2 like particle that selectively targets cells expressing ACEII receptor. In this video, we showcase our innovative solution and other aspects of our iGEM project. Credits Videography and Video Editing: Youssef ElDemerdash Graphic Design: Abdelrahman Elsadany Featuring Ahmed Ghouneimy Norhan Mokhtar Royalty Free Music Retrieved from https://www.scottholmesmusic.com/ Footage under creative commons license retrieved from: https://www.youtube.com/watch?v=jSH96UFpPRA https://www.youtube.com/watch?v=GbR4a06s2YE https://youtu.be/OSUzkpBvG0U https://www.youtube.com/watch?v=-5tnjirPmQw https://www.youtube.com/watch?v=yQky8qARcwc https://static.igem.org/peertube/streaming-playlists/hls/2bb9dd02-d8cb-41ec-bfda-035447f11e64/74d2667b-887e-44bd-83a6-5e25b3dcb853-master.m3u8https://video.igem.org/videos/embed/6paQDozg1EBg6fcEbmLSUU11602072020-09-25T14:10:14.759ZEgyptTherapeuticsAfricaYES2020 Project PromotionsNOhttps://video.igem.org/w/hzk3g2hu7cYW2YwrpqzNJBhttps://video.igem.org/lazy-static/thumbnails/9400d2f1-5cb6-4d15-b114-4403f7229992.jpgTsinghua-A: DNA storage medical database (2020) - Project Promotion [Chinese]Abstract: Want a brand new way dealing with medical data? We are providing such an idea. DNA storage is a storage media for the future and we are presenting a good way of using it. More information coming soon! Wiki link:https://2020.igem.org/Team:Tsinghua-A Credits: All members of Team:Tsinghua-A https://static.igem.org/peertube/streaming-playlists/hls/86397f02-f09e-418c-93f2-3154dd12e167/329d1fc6-ccaf-44b5-8812-3830a7a5d135-master.m3u8https://video.igem.org/videos/embed/hzk3g2hu7cYW2YwrpqzNJB120072020-09-25T14:13:43.434ZInformationProcessingAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/b5YAajxPqEfn3gsuzE3FjPhttps://video.igem.org/lazy-static/thumbnails/aa20b64c-6c2b-49d2-a708-d700b8472185.jpgNAU-CHINA: SLIM (2020) - Project Promotion [English]Abstract: This year, NAU-China iGEM team uses synthetic biology to create a new method to deal with lead pollution in soil. We have known that lead in soil can form extremely stable pyromorphite with phosphate radicals, but most of the phosphorus in the soil exists in the form of mineral phosphate, so we use engineering bacterium Bacillus subtilis to express phytase, which can convert invalid phosphorus into phosphate radicals. At the same time, our team creatively found a "good helper" - earthworm, which can move freely in the soil. Wiki Link: https://2020.igem.org/Team:NAU-CHINA Credits: Directed by NAU-CHINA Content & audio provider: Wang Xiuli Animators：Zhang Ran Jiang Xinyue https://static.igem.org/peertube/streaming-playlists/hls/51ad3c62-6367-41a1-9be4-6050ea1cba0f/f266c032-5bdb-4410-a13d-656f54f96d61-master.m3u8https://video.igem.org/videos/embed/b5YAajxPqEfn3gsuzE3FjP1200442020-09-25T14:42:56.011ZAsiaChinaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/hX8sP4YEmDMZoUVJVt5gGJhttps://video.igem.org/lazy-static/thumbnails/f0f8d0c9-5079-428b-8ea1-b1b4b962bd34.jpgQueens_Canada: Velcrion (2020) - Project Promotion [English]Abstract: Team Queens_Canada will be designing a transdermal biosensor for point-of-care diagnostic quantification of phosphate, potassium, parathyroid hormone (PTH) and fibroblast growth factor 23 (FGF23) for chronic kidney disease (CKD) patients. Gold standards of CKD monitoring involve blood sampling, but in Canada blood is only taken once every 6 weeks – making this data difficult to interpret while creating a large divide between patients and the clinic. Our biosensor hopes to bridge this gap through frequent monitoring. Wiki: https://2020.igem.org/Team:Queens_Canada Credits: Creation of Video: Sono Khan, Kody Klupt, Genevieve Norris-Roozmon, Yuri Cauyan Music: Behind Those Eyes - Kikoru Facebook: https://www.facebook.com/iGEMQueens/ Instagram: https://www.instagram.com/queens_igem/ https://static.igem.org/peertube/streaming-playlists/hls/8944b985-a81f-4914-ac93-76ceb513b0c6/543409fe-ccdb-46fd-9b7c-7305c83652c3-master.m3u8https://video.igem.org/videos/embed/hX8sP4YEmDMZoUVJVt5gGJ1200682020-09-25T14:17:04.447ZDiagnosticsNorthAmericaCanadaYES2020 Project PromotionsNOhttps://video.igem.org/w/aDrAP3kfHjUrPdDGTuhCKfhttps://video.igem.org/lazy-static/thumbnails/695c5a35-96b1-4d04-8e70-8c7436780297.jpgAshesiGhana: Bioluminescent Self-Repairing Bioconcrete Tetrapods (2020) - Project Promotion [Engl...**Abstract**: The aim of this project is to engineer a series of bacteria that will help us develop bioconcrete tetrapods that are self-repairing and also bioluminescent. Our project is tackling both plastic pollution and coastal erosion by (1) using shredded plastic in the creation of the tetrapods and (2) intending to set the tetrapods along the coast to prevent coastal erosion. **Wiki Link**: https://2020.igem.org/Team:AshesiGhana/ **Credits**: We'd like to thank the entire AshesiGhana team for their hard work and dedication. We'd also like to acknowledge Eric Taylor for the royalty-free [African drumbeat music](https://www.youtube.com/watch?v=3P-ME0GohlM). In addition, special thanks go to the makers of [Subtitle Horse](http://subtitle-horse.com) which made it easy to subtitle our video. Finally, we would like to thank the [VideoScribe](http://videoscribe.co) team for an amazing whiteboard video making tool as well as [iMovie](https://www.apple.com/imovie/) for an amazing tool that allowed us to edit the video.https://static.igem.org/peertube/streaming-playlists/hls/4e1c8b4a-a4ee-499a-9be5-ccbf4694967c/814c2e82-7e44-4f14-ae92-f2d84e6d3ef1-master.m3u8https://video.igem.org/videos/embed/aDrAP3kfHjUrPdDGTuhCKf12003962020-09-25T14:46:16.236ZAfricaGhanaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/uBrn2QCaMvNuQGvNVarHfChttps://video.igem.org/lazy-static/thumbnails/c374cb16-a501-4e79-a587-e06cbc459da9.jpgMingdao: Cleandy (2020) - Project Promotion [English]Abstravt: We are igem Mingdao. The problem we want to solve is the high rate of children having tooth decay. Therefore, we try out to make a double layered lollipop called Cleandy.The sugar layer of Cleandy is made from Erythritol, Isomalt and Xylitol; the core is genetically modified bacteria which can prevent tooth decay. With this candy, we hope to let the children reluctant to brush their teeth could maintain a good oral condition. Wiki Link: https://2020.igem.org/Team:Mingdao Credits: TING YUN LIAO, CHIH FANG CHEN, YI HSUAM YU, CHIANG YU CHEN, JUI HUNG YEH, SHENG FUNG LI, YUNG HSIANG YANG, CHU HSUAN SHEN FB Link: https://www.facebook.com/mingdaoigem/photos/a.928788077266455/2045189428959642https://static.igem.org/peertube/streaming-playlists/hls/e7b28b71-4008-4179-ac36-201c811c43ac/a1530268-e540-4a34-ae70-319126df296d-master.m3u8https://video.igem.org/videos/embed/uBrn2QCaMvNuQGvNVarHfC1180692020-09-25T14:19:15.478ZTaiwanHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/bnSQbd7FZ2m8Y2RtuJiGp8https://video.igem.org/lazy-static/thumbnails/90692eaa-1420-490d-bddc-84be46c7adfc.jpgUNILausanne: BOT-Bacterial Oscillation Therapy (2020) - Project Promotion [English]Abstract: Bacterial Oscillation Therapy. B.O.T is based on chronotherapy, allowing the administration of an anti-cancerous drug in an oscillatory manner in order to maximize its effectiveness while minimizing the side effects. An E.coli Nissle 1917 containing a modified version of the famous repressilator (Leibler 2000) will naturally target colorectal cancer and deliver Azurin periodically. Link to our Wiki page: https://2020.igem.org/Team:UNILausanne Credits: Yolanda Schaerli, Ilinca Dragan, Elise Eray, Julien Cergneux, Jeremy Cherbuin, Sara Ezzat, Christopher Forbes-Jaeger, Pablo Guridi Fernández, Jakub Korzeniowski, Nicolas Pellaton, Johanna Wahn, Daniel Rodriguez, Thierry Marti, Music: Royalty free music from Bensound Follow us on Twitter: https://twitter.com/IgemUnil?s=08 Follow us on Instagram: https://instagram.com/igem_unil?igshid=svdhi7cb5pi5 Visit our blog page: https://thetranscriptome.comhttps://static.igem.org/peertube/streaming-playlists/hls/540954cd-003b-41d7-83b3-86ee15d9f9e5/3098bbbe-6c2e-4b3f-bd91-2dd14f8c0d2c-master.m3u8https://video.igem.org/videos/embed/bnSQbd7FZ2m8Y2RtuJiGp811501582020-09-25T14:29:38.982ZTherapeuticsSwitzerlandEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/4f2crbb8sf3ToiiXgE3TZrhttps://video.igem.org/lazy-static/thumbnails/997ef3a3-6bf3-40d7-a50b-49511295ba24.jpgXHD-ShanDong-China: Pro E.coli (2020) - Project Promotion [English]Abstract:We plan to control the expression of heat-resistant genes by changing the spatial distance between heat-resistant genes and their regulatory genes, so as to change the thermal adaptability of E.coli and create new heat-resistant strains. The purpose of the project is to make a fundamental contribution to the microbial fermentation industry. Wiki Link: https://2020.igem.org/Team:XHD-ShanDong-China Credits: Maker: William Dubber: Wen Grace Instructor: Grace Image Processing：XiangYun Zhang Bingjie Li Subtitle： Rebecca Background music：http://www.aigei.com Video clips resource：https://www.vjshi.com Video clips authors： 半夜吹风 苏不凡 dongchenad https://static.igem.org/peertube/streaming-playlists/hls/1a409107-a7ac-4dc2-a4d5-f95a95b9077f/895ce108-f368-4e01-b43c-25ef3245488f-master.m3u8https://video.igem.org/videos/embed/4f2crbb8sf3ToiiXgE3TZr1090352020-09-25T14:32:30.029ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/iJSfszxDRDxCtMwJnpsUpGhttps://video.igem.org/lazy-static/thumbnails/5bfe4a90-19d9-4ae0-b004-0156faf057d7.jpgMIT_MAHE: Breaking Bond (2020) - Project Promotion [English]Abstract: Breaking Bond - Mercury in water bodies is converted by anaerobic microbes into methylmercury. This toxic compound, gets biomagnified and bioaccumulated through the aquatic food chain and can reach dangerously high concentrations. We are developing a probiotic bacterium that can convert methylmercury (95% absorption) to elemental mercury (<0.01% absorption), mercury is inert in the gut and thus the problem is solved. We will also have a system that will help in reducing mercury-induced inflammations. Wiki Link: https://2020.igem.org/Team:MIT_MAHE Credits: Script: Adithi Somayaji Lavanya Neelakanta Karinje Sanya Lakhotia Shravan Balasubramaniam Soumodeep Sarkar Illustrations: Kshitij Madduri Naman Kapoor Sanya Lakhotia Urvi Gupta Utkarsh Mohan Animations: Sanya Lakhotia Urvi Gupta Utkarsh Mohan Editing: Kshitij Madduri Voiceover: Sanya Lakhotia Shravan Balasubramaniam Subtitles and sync: Naman Kapoor Music: 1. Paranoia from Purple Planet Music 2. Soft Corporate (preview) from Adobe Stock Other Links: Instagram - https://www.instagram.com/manipalbiom... Facebook - https://www.facebook.com/manipalbioma... Twitter - https://www.twitter.com/m_biomachines Official Website - https://www.manipalbiomachines.comhttps://static.igem.org/peertube/streaming-playlists/hls/8fa79012-4879-4e43-aa37-2c80630c0fce/2f6c3762-d078-4e09-9f45-5c5faf674fb3-master.m3u8https://video.igem.org/videos/embed/iJSfszxDRDxCtMwJnpsUpG11901192020-09-25T14:50:59.920ZAsiaIndiaTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/tzrBPvQN9LKkfxGBWdcK2jhttps://video.igem.org/lazy-static/thumbnails/47e67c3b-b9d2-4465-a357-8228b3298489.jpgMIT: Mammalian Circuitry for Treatment of COVID-19 Cytokine Storms (2020) - Project Promotion [...Our project is working on cytokine storm immunomodulation for COVID-19. We used synthetic circuits based on a PERSIST-based AND gate, and modelled their dynamics using MATLAB/SimBiology. Our model successfully demonstrated the cytokine immunomodulator work and tested different cytokines to target. We also hosted MMM, the MIT Mammalian Meetup in which we invited teams around the world to learn about synbio in mammalian cells, https://2020.igem.org/Team:MIT Attributions: Team MIT iGEM 2020, Deepak Mishra, Miles George, Malik George, Melody Wu, Ben Allsup, Kristina Stoyanova, Sebastian Palacios, past members Diani Jones + Dana Osei, Dr. Kenneth Oye and Dr. Françoise Baylis Noreen Wauford, Dr. Fabio Callendo BE Communications Lab Professor Ron Weiss All music and sound effects were royalty free: https://www.youtube.com/watch?v=3xSSzNpiX_E https://www.youtube.com/watch?v=7eiAq3Avssc https://static.igem.org/peertube/streaming-playlists/hls/df52135b-d1cd-4803-96d1-9f775d098f50/0ce4c349-5c4d-49bd-8cbf-ff9144a5de3d-master.m3u8https://video.igem.org/videos/embed/tzrBPvQN9LKkfxGBWdcK2j9801272020-09-25T14:50:35.481ZNorthAmericaTherapeuticsUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/ad2JRVr62ExNpTHDbZZcLNhttps://video.igem.org/lazy-static/thumbnails/604fc989-8c99-469c-9d58-f7eeb69185ac.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [Greek]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/4a903eaf-5807-4e3b-a773-b5e647dcdd2a/89bd36bf-07e6-4c11-b4d5-ab0067b325f0-master.m3u8https://video.igem.org/videos/embed/ad2JRVr62ExNpTHDbZZcLN119032020-09-25T14:48:01.844ZEuropeEnvironmentNetherlandsYES2020 Project PromotionsNOhttps://video.igem.org/w/2uPfJJPL35d5SKU27AbMuyhttps://video.igem.org/lazy-static/thumbnails/1891e632-c202-40d7-ab0c-277ff4bb842a.jpgXHD-Wuhan-China: Dr. Mars plan (2020) - Project Promotion [English]Abstract: For humans to successfully migrate to Mars, there must be a suitable ecological environment. Green plants can successfully grow and reproduce in Martian soil is the key. There are a lot of insoluble phosphorus in Martian soil, which can not be absorbed by plants. In order to solve this problem Deinococcus radiodurans was selected and modified by synthetic biological methods to make it have the ability to help transform insoluble phosphorus into soluble phosphorus. Wiki Link: https://2020.igem.org/Team:XHD-Wuhan-China Credits: Maker: William Dubber: Helen Chen Instructor: Chi Xu Image Processing：Lisuo Jin Helen Chen Subtitle Correction: Rebecca Video clips resource： https://www.vjshi.com http://www.ignitemotion.com https://mixkit.co Background music resource： http://www.aigei.com Video clips authors： 大庆 hfcgzd 风儿吹过 创意社 xiaoyangjie 视频大神 巨星ae https://static.igem.org/peertube/streaming-playlists/hls/0c1f15e8-d3ae-4712-a60e-ce16195e707c/a4eeede7-3a9f-4bd4-b332-3fc1f1ffbdeb-master.m3u8https://video.igem.org/videos/embed/2uPfJJPL35d5SKU27AbMuy1200722020-09-25T14:52:20.493ZAsiaChinaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/67gDe65xpekMKdDT9SAXV9https://video.igem.org/lazy-static/thumbnails/73261f4b-5af6-4b03-9882-ed3262986d87.jpgNOVA_LxPortugal: To Fight For Pinus Pinaster (2020) - Project Promotion [Portuguese]Pinus pinaster is endogenous to Portugal and its preservation is crucial not only due to its economic value but also for its importance to several ecosystems. Pine Wilt Disease is a deadly pest caused by a nematode, Bursaphelenchus xylophilus, that affects several areas across the globe and present in Portugal since the 90s. PineNematoFight proposes to battle this pine disease by introducing a nematicide-producing pathway in Pseudomonas putida. https://2020.igem.org/Team:NOVA_LxPortugal ORIGINAL VIDEOhttps://static.igem.org/peertube/streaming-playlists/hls/295dcba8-2db9-422d-9ba4-17620a099b76/a5cfd232-b392-4fbd-b928-37a2ccaf8bb1-master.m3u8https://video.igem.org/videos/embed/67gDe65xpekMKdDT9SAXV91190112020-09-25T15:06:02.683ZPortugalEnvironmentEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/6hJ2Kei1DCcjgLpxcQkaFphttps://video.igem.org/lazy-static/thumbnails/b3c813d1-6ea9-4a1c-b0ea-0c20e6d06ada.jpgNYC_Earthians: Project Trypanosome (2020) - Project Promotion [English]The setting: the distant Cow Planet. The cows on Cow Planet are being ravaged by the deadly parasite disease, trypanosomiasis. (In reality, trypanosomes affect cows throughout Sub-saharan Africa, leading to hardship for subsistence farmers who rely on livestock for survival.) The protein APOL-1 is brought down to the Cow Planet by Igem team Earthians. They splice the powerful baboon APOL-1 with the bovine APOL-3, giving cows immunity to the disease! https://2020.igem.org/Team:NYC_Earthians Attributions Script and Concept by member Isabella Ho (with contributions by NYC Earthians members and minor edits by team PI Eli Epstein-Deutsch) Puppets by Isabella Ho Sound editing by NYC Earthians member Justin Lee Video Editing and Production Design by NYC Earthians member Tom Jeong Voices by NYC Earthians (Trump Cow- Jay Noh, Cow Reporter-Cyrus Curtsetjee, Dr. Cowci Wonjoon Jeong, Earthians: Andrew Jung, Dylan Lane, Yunseo Jeon, Emily Chervinsky) Stock Footage from Art Grid https://static.igem.org/peertube/streaming-playlists/hls/2ad37ede-9e7f-441e-9192-bd5fe539b649/17faefaf-bb86-4b47-896e-9f972e44f899-master.m3u8https://video.igem.org/videos/embed/6hJ2Kei1DCcjgLpxcQkaFp1190672020-09-25T15:22:44.070ZUnitedStatesNorthAmericaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/nX93vvWtH4sJhULvUV4458https://video.igem.org/lazy-static/thumbnails/308913d7-8515-419e-bff4-cce690bce56d.jpgLINKS_China: PICACHU (2020) - Project Promotion [English]Abstract: Shenzhen, a beautiful coastal city, has beaches, migratory birds, and mangrove. However, it's extremely difficult to protect the natural environment due to the long shore-line, which requires sustainable energy for environment monitoring. So, we decided to make a"PICHACHU". It can safeguard migratory birds as a small & light tracking device, or trace down ocean waste in the form of a "coconut", or even more, facilitate exploration in outer space. https://2020.igem.org/Team:LINKS_China Credits: Written By:mesue Filming Crew: Mesue, Diol Wang, Yuhan Original Soundtrack From: Shangyi Animation: Marie, Mesue Editor: Johnny, Carl, Mesue, Diol Wang Closed Caption By: Johnny, Brookyln, Shangyi Casted By: Josh, Carl, David Liu, Mesue, Lida, Aaron, Eve, Mike, Johnny, David Zhao, Bruce, Fion, Kevin, Stephen, Zane, Brooklyn Featuring: Video by KIM ASWANI, Kelly Lacy, Rui Dias from Pexels Trash washed ashore on beach provided by Videvo, downloaded from www.video.net. Thanks to Google Earth. links_china@outlook.com instagram: links_chinahttps://static.igem.org/peertube/streaming-playlists/hls/b1c2c6aa-c01a-4540-9200-d6375af54ee3/b4619553-8210-4e7a-9dbb-29629f09d89f-master.m3u8https://video.igem.org/videos/embed/nX93vvWtH4sJhULvUV445812001012020-09-25T15:17:58.188ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/7x9sFthEjKMFwjmwz77Fd7https://video.igem.org/lazy-static/thumbnails/b8b41115-8f48-42e5-90f5-dfc2deed58f6.jpgMoscow-Russia: Genomus. Genetic Diseases Prevention System (2020) - Project Promotion [English]Autosomal-recessive diseases, such as cystic fibrosis, phenylketonuria, galactosemia and sensorineural hearing loss affect millions of people worldwide. There is no widely-available treatment for these diseases yet. For this reason, our team developed Genomus — a preconceptional screening system which is capable of significantly reducing the amount of such mutations in the human population. Genomus allows to compare genetic data with your partner and get recommendations for pregnancy planning. https://2020.igem.org/Team:Moscow-Russia Music (CC by 3.0, The Reckoning — Aerohead, Phoenix — Lahar, Baby’s Cry — freesound.org/s/58178) Droplet counter (CCmod, mixkit.co/) instagram.com/igem_rsmuhttps://static.igem.org/peertube/streaming-playlists/hls/34f01a3d-2971-4faa-89dd-6aba89d8b7aa/5d89fb33-08b0-474c-a569-2ece7403ca91-master.m3u8https://video.igem.org/videos/embed/7x9sFthEjKMFwjmwz77Fd711801062020-09-25T15:24:47.298ZDiagnosticsEuropeRussianFederationYES2020 Project PromotionsNOhttps://video.igem.org/w/f3CpQrmPGK3XD32VHTGGDVhttps://video.igem.org/lazy-static/thumbnails/49bb662a-7304-4d95-8c2b-fbf64b210afa.jpgTongji_China: Hetoul: Heme to ultrasonic imaging (2020) - Project Promotion [English]Abstract: Chronic lower gastrointestinal bleeding is a manifestation of lower gastrointestinal disorders. It features small amount of bleeding and patients’ unawareness. To locate the bleeding site, instead of traditional ways, team Tongji China designed Hetoul, the engineered bacteria that can realize more rapid localization of the bleeding site in lower gastrointestinal tract. Further, Hetoul can also play the role as a diagnosis tool for lower gastrointestinal diseases, such as colorectal cancer. Wiki Link: https://2020.igem.org/Team:Tongji_China Credits: Consultant: Jiacheng Jiang Scriptwriter Group: Jiacheng Jiang, Wenting Lu, Haocun Wang Screenwriter& Editor& Recording: Qile He Voiceover: Yunzhe Kang Animation: YingYing Yue, Qile He, Xiangqi Huang Acknowledgement: Dr. Yaozong Yuan, Dr. Qian Cheng,Dr. Zhigang Huang, Dr. Bing LuDr. Bing Wang, Dr. Jing Zhang, Dr. Ye Leng, Dr. Ping Li, Dr. Hongbing Wang, Dr. Shaorong Gao, Dr. Chong Li, Dr. Jiayu Chen, Dr. Chao Zhang,Dr. Changsheng Du, Libo Xing, Xin Gui, Yunzhe Kang, Yuxiao Fan, Huan Zhang, Tongji_Software 2020 iGEM team, SJTU-BioX-Shanghai 2020 iGEM team, WHU-China 2020 iGEM team Special Acknowledgement: Tongji University, School of Life Science and Technology of Tongji University, Shanghai Ruijin Hospital, Shanghai East Hospital, Shanghai Institute of Materia Medica, Chinese Academy of Sciences, Vazyme, Olympus Corporation, Becton Dickinson and Company, Snapgene, Geneious Prime Other links: Twitter: https://twitter.com/Tongji_China bilibili: https://space.bilibili.com/596431606?from=search&seid=9469165238086650583 Instagram: https://instagram.com/tongji_china?r=nametag https://static.igem.org/peertube/streaming-playlists/hls/71bdde29-ccdd-42b0-a750-9cd0ccb8b307/68edfd88-7b86-4c90-a6f2-aa066746fa0d-master.m3u8https://video.igem.org/videos/embed/f3CpQrmPGK3XD32VHTGGDV1190412020-09-25T15:28:06.376ZAsiaDiagnosticsChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/bdTg3G3QCV5NQ8yjmc1fSchttps://video.igem.org/lazy-static/thumbnails/f8461a74-9bdb-419a-95a9-654e595d53db.jpgMSP-Maastricht: Help fight the OPC (2020) - Project Promotion [Latvian]Abstract: The Maastricht-MSP iGEM team shows how the Oak Processionary caterpillar (OPC) is negatively affecting both the oak ecosystems and the people. The OPC is an invasive species that is spreading rapidly as a result of climate change. The MSP-Maastricht team has designed a bacterial pesticide to combat the spread of the OPC via RNA interference. This provides an effective and highly specific new tool to protect the oaks and us. Wiki Link: **https://2020.igem.org/Team:MSP-Maastricht** Credits: *[Filming] Benjamin Heidt, Silvio Bonni, Larissa Markus, Ronja Haikarainen, Saga Björnör, Juliette Passariello-Jansen, Rafaella Kosta, Lars Robeerts, Lianne Granston, Eva Thielecke, Jules Sondeijker [Audio&subtitles] Lianne Granston (English), Maxime van de Schoot (Dutch), Cyrille Sébert (French), Marta Rubina (Latvian), Dasha Shumkova (Russian), Ronja Haikarainen (Finnish), Juliette Passariello-Jansen (Spanish), Rafaella Kosta (Greek) Larissa Markus (German), Saga Björnör (Swedish), iBowu-China team (Chinese) [Editing] Cyrille Sébert [Music] Alive by ikson: http://www.soundcloud.com/ikson [Creative Commons images] Daniel Ullrich (https://commons.wikimedia.org/wiki/File:Raupendermatitis.jpg), Christian Fischer (https://commons.wikimedia.org/wiki/File:ThaumetopoeaProcessionea3.jpg), MrsBrown (https://www.needpix.com/photo/1878314/eikenprocessierups-caterpillar-procession-stinging-hairs-eikenprocessievlinder-moth-tandvlinder-notodontidae-skin-rash) Website: www.igem-maastricht.nl Youtube Channel: https://www.youtube.com/channel/UCpZQvRTiQNvqz9XcqDGK9pA?view_as=subscriberhttps://static.igem.org/peertube/streaming-playlists/hls/52c7e6cd-f52f-45ff-8f65-1cde675b9307/5eede0cd-2dd7-4053-9a68-bc23f2cbd61c-master.m3u8https://video.igem.org/videos/embed/bdTg3G3QCV5NQ8yjmc1fSc1190542020-09-25T15:31:10.038ZNetherlandsEnvironmentEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/vFRhVUSxtoZ9PCMK1hpXCzhttps://video.igem.org/lazy-static/thumbnails/a8d4a6df-69a1-43a1-8d7d-7ab8dcc1c44b.jpgGreatBay_SZ: BIOT (2020) - Project Promotion [English]Abstract: GreatBay_SZ has recently developed a device named BIOT(Biotechnology-driven Internet Of Things), which can generate electricity via the moisture in the air, by using the technology of synthetic biology. The development of BIOT has entered the stage of refinement and optimization. Its tremendous potential in the future market of Internet of Things raises the attention across the world, including some mysterious organizations. Wiki Link: https://2020.igem.org/Team:GreatBay_SZ Credits: SCRIPTWRITER JIAXIN LI HEI MAN LO YUTONG CAI ZHUOTING XIE YILEI HUANG SHIYUN LIANG ACTOR HEI MAN LO JIAXIN LI ZHENGKANG ZHOU DIRECTOR HEI MAN LO DIRECTOR OF PHOTOGRAPHY & ART YIMING CHEN EDITOR YIMING CHEN SHIYUN LIANG SHUHAN WANG PART OF IMAGES AND VIDEOS 2M7G, Structure of the Type IVa Major Pilin from the Electrically Conductive Bacterial Nanowires of Geobacter sulfurreducens, Mol* (Reardon, P.N., Mueller, K.T. (2013) J Biol Chem 288: 29260-29266 DOI: 10.1074/jbc.M113.498527), RCSB PDB https://www.pexels.com/videos/ https://pixabay.com/ https://static.igem.org/peertube/streaming-playlists/hls/f06967c6-a8b2-432c-8de4-c8ee87529cdd/aba701bc-6f25-4ea5-9ac0-37b657bdc087-master.m3u8https://video.igem.org/videos/embed/vFRhVUSxtoZ9PCMK1hpXCz12002242020-09-25T15:32:44.698ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/96Zfie1dySUAwALNFqmE6Ehttps://video.igem.org/lazy-static/thumbnails/ff0228d3-da9b-464a-bea8-d150bb547a20.jpgUNSW_Australia: PROTECC Coral (2020) - Project Promotion [English]Abstract: Australia is home to three-quarters of the world’s coral population. With rising ocean temperatures, the Great Barrier Reef is experiencing its third coral bleaching event in five years. PROTECC Coral aims to improve the heat tolerance of reef coral, while increasing the heat capacity of coral’s algal symbiont: Symbiodinium. Our video outlines how a synthetic biological solution can help preserve our coral, as well as the diverse ecosystems and communities that depend on them. Wiki Link: https://2020.igem.org/Team:UNSW_Australia Credits: SCRIPT Annabelle Lee, Bella Beach, Jason Lin, Sayali Gore, Chelsea Liang, Gabrielle Milet; VIDEO PRODUCTION Gabrielle Milet; MUSIC & AUDIO “Dreaming Big” by Ahjay Stelino via mixkit music, Selected by Sakthirupini Ramamurthy, Narrated by Gabrielle Milet; RESEARCH UNSW iGEM Team 2020; SPECIAL THANKS TO: Field Experts Dr. Dominic Glover, Joshua Mcluskey, A/Professor David Suggett, Professor Madeleine van Oppen, Dr Suhelen Egan, Dr Tracy Ainsworth, Melissa Katon; Organisations for their support: UNSW, Revive and Restore; iGEM Mentors from Previous Years: Zeeshan Siddiqui, Kevin Huynh, Justine Salazar, Linda Chen, Megan Jones. Other Links: https://www.facebook.com/unswigemteam https://www.instagram.com/unsw_igem/ https://static.igem.org/peertube/streaming-playlists/hls/419f1b87-a827-4138-a85f-5cd60d65c820/bc007635-3933-4cd7-98d2-9129681e9b11-master.m3u8https://video.igem.org/videos/embed/96Zfie1dySUAwALNFqmE6E11803152020-09-25T15:46:52.860ZEnvironmentAsiaAustraliaYES2020 Project PromotionsNOhttps://video.igem.org/w/8gs29ggQqVZyda5BMpZyBLhttps://video.igem.org/lazy-static/thumbnails/fd2df031-c0ec-42e1-83f7-880e32b283c0.jpgDUT_China: Reboot T4 (2020) - Project Promotion [English]Abstract: Bacterial resistance is increasing dramatically. Here we are developing a yeast artificial chromosome-based platform to effectively engineer and reboot phages. We demonstrate this platform by rebooting the T4 phage. The T4 genome will be transformed into yeast with four plasmid backbones. The four plasmids will form a large plasmid. Then the large plasmid will be introduced into E. coli, and the engineered phages will be rebooted. Our platform will ease the process for manufacture of customized phages and facilitate the phage therapy. Wiki Link: https://2020.igem.org/Team:DUT_China Credits: Video: Aohui Liu, Tian Li, Qian Yu, Wenning Li, Qiannan Wu Music and sound: whoosh from dapaidang video editing helper journey to the light (b) from http://www.aigei.com/ Special thanks: Zhiwei Zhu, Ruotian Zhang, Siyu Yang, Bolong Li Other links: Our email: igem_dlut@163.comhttps://static.igem.org/peertube/streaming-playlists/hls/3ad82991-a1d1-4693-8463-3ac1aa04d6d2/ac14f051-8e33-4577-89bb-0b3aa1278ae7-master.m3u8https://video.igem.org/videos/embed/8gs29ggQqVZyda5BMpZyBL12005952020-09-25T15:55:21.609ZAsiaFoundationalAdvanceChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/vQvwn5D44RLBcuCfuhLXcXhttps://video.igem.org/lazy-static/thumbnails/b8348519-0362-42a0-b9f3-7802a8568658.jpgCCA_San_Diego: Acefate (2020) - Project Promotion [English]Abstract: The bio-degradation of acephate using genetically modified Escheria coli (E. coli) is studied in this present project. Acephate exposure causes nausea, diarrhea, rapid heart rate, and/or confusion and is listed as a possible carcinogen by the EPA. High exposure leads to respiratory paralysis and death. Environmentally, the organophosphate insecticide acts as a neurotoxin in bees, as well as other insects and animals. In the present study, we enriched samples of acephate-treated soil to propagate the growth of Pseudomonas bacteria. After 5 weeks, 10g from each beaker of soil treated with acephate were mixed with 95mL sterile 0.85% saline solution before 0.1 mL samples were diluted 10 fold and inoculated into 3mL M9 medium + 50 μg/mL acephate. After incubation and pour-plate isolation, DNA was extracted from homologous bacterial colonies using the alkali lysis method and the 16S rRNA gene was sequenced using PCR with universal primers 27f and 1492r. The bacteria was isolated and incubated with 50 mgL-1 acephate, and degradation was monitored with spectrophotometry. Residues were extracted from the supernatant and analyzed with HPLC. After analyzing degradation efficiency, we ran PCR tests to isolate certain genes (preferably OPD, but we developed a consortium in case certain genes aren’t present in our isolated species). We will insert this amplified gene into a plasmid to transform E. coli K12. We have added a kill-switch in our engineered E. coli as to shut off any possible harmful effects after biodegradation in field testing. The results of the experiment suggest an effective and safe way of removing acephate from the environment. Wiki link:https://2020.igem.org/Team:CCA_San_Diego Credits: Andrew Sun, Mason Holmes, Ayush Agrawal, Andrew Gao, Andrew Kang, Chris Jung, HanMin Kim Other links: visit and keep up to date with us on instagram @cca.igem https://static.igem.org/peertube/streaming-playlists/hls/f19eeaa6-cea3-415e-810d-5f265eddea51/4174a5ca-2219-4d14-b61e-bf95d9b7634c-master.m3u8https://video.igem.org/videos/embed/vQvwn5D44RLBcuCfuhLXcX12001062020-09-25T16:01:36.985ZNorthAmericaHighSchoolUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/6nhLScz4yYXsbmQXZtERrHhttps://video.igem.org/lazy-static/thumbnails/ee1b11fa-8d61-4665-9227-0544e006b1a2.jpgPittsburgh: Bluetooth Bacteria (2020) - Project Promotion [English]The Pittsburgh 2020 iGEM Team presents the Bluetooth Bacteria. Inspired by Bluetooth wireless technology, the Bluetooth Bacteria is a tool that will allow wireless control of bacterial gene expression. After the attachment of magnetic nanoparticles to the surface of E. coli, an input of alternating magnetic fields will raise cell temperature and activate heat-sensitive dimers. This allows spatial and temporal control of gene expression lending itself to many biomedical and industrial applications. https://2020.igem.org/Team:Pittsburgh Audio by Lia Franco Edited by Sabrina Catalano Narration by Dara Czernikowski Script by Angel Zheng Subtitle by Victor So Music by Aleksandr Shamaluev https://static.igem.org/peertube/streaming-playlists/hls/2b76a647-cfa6-49b8-9dc8-1fe3959c64b7/03b788da-798a-4fc7-ba6e-1c6c4882feaf-master.m3u8https://video.igem.org/videos/embed/6nhLScz4yYXsbmQXZtERrH12001072020-09-25T16:07:27.883ZFoundationalAdvanceUnitedStatesNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/g5dMeUWTQR7epNvkBJ41Xdhttps://video.igem.org/lazy-static/thumbnails/76f10a54-54a6-42d4-8942-d33d0deb38cd.jpgFudan: Bone Appetit (2020) - Project Promotion [English]An old lady was found lying on the ground, dead. Who's the murderer? Can Sherlock deduce the fact? Welcome to the special of Sherlock Holmes by Team: Fudan - The study of Bon pill !!!https://static.igem.org/peertube/streaming-playlists/hls/7a0fee51-a637-4caf-aa97-a1d9bcafd3ba/7c10ec81-2aaf-4406-99b6-a19933df402a-master.m3u8https://video.igem.org/videos/embed/g5dMeUWTQR7epNvkBJ41Xd12002632020-09-25T16:09:53.713ZChinaAsiaFood&NutritionYES2020 Project PromotionsNOhttps://video.igem.org/w/hhzRRXCnWD1z1HjmbBgVh1https://video.igem.org/lazy-static/thumbnails/a3b077a5-ade1-43c8-b54c-971ffdf3ca3f.jpgHZAU-China: Tooth Fairy (2020) - Project Promotion [English]Abstract:Tooth Fairy aims to efficiently repair nano-scale damage to dental enamel. In order to reflect the significance and demand of the project, the video shows the special structure of dental enamel and the irreversibility after damage, combined with the high expectations of the public for tooth enamel repair. Then, the video briefly presented Tooth Fairy's repair principle and function of killing Streptococcus mutans, and finally showed the hardware and usage. Wiki Link:https://2020.igem.org/Team:HZAU-China Credits:HZAU-China: Tooth Fairy (2020)-Project Promotion Video [English] are independently produced by HZAU-China. Han Yu is the video director, Xu Lixiang is the animator, Lu Ye is in charge of the live shooting, and Liu Yun is the dubbing speaker. The video editing is done by She Shujin, Zheng Mengyao, and Nie Jianglai. The script and subtitles are jointly written by all members of HZAU-China. In addition, the survey data in the video is provided by the HZAU-China HP group, the figers of 13s01' and 16s29' are quoted from two documents in Nature（Albustani A I , Thompson V , Deb S . A Novel Etchant System for Orthodontic Bracket Bonding[J]. entific Reports, 2019, 9(1); Ophir D, Klein, Olivier, et al. Meeting report: a hard look at the state of enamel research.[J]. International journal of oral science, 2017.）, and the background music is provided by Wayne Jones. https://static.igem.org/peertube/streaming-playlists/hls/83e2fc53-7123-49f8-9943-55bd4ac95cdc/80cc8c10-ad26-47bd-bc11-0f812e63464c-master.m3u8https://video.igem.org/videos/embed/hhzRRXCnWD1z1HjmbBgVh11190602020-09-25T16:13:24.034ZNewApplicationAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/7dTbnNtFW1UhyBjyo36AUbhttps://video.igem.org/lazy-static/thumbnails/b9574d8e-c30e-43af-b856-258d6828a64c.jpgWilliam_and_Mary: TheraPUFA (2020) - Project Promotion [Chinese]To address the urgent need for broad spectrum antiviral therapies, we at William & Mary iGEM are designing an antiviral nasal probiotic and investigating its feasibility through extensive mathematical modeling. The probiotic would secrete polyunsaturated fatty acids (PUFAs), which may possess antiviral effects, and respond intelligently to inflammation. Our mathematical model aims to quantify PUFA produced and its effect on viral load and cytokine production, taking into account spatial heterogeneity within the nasal cavity. http://2020.igem.org/Team:William_and_Mary CREDITS PI : Dr. Saha Voice Over: Wei Wang, Hantao Yu Captions: Adam Oliver Filming: Matt Dennen, Riya Garg, Josh Hughes, Adam Oliver, Julia Urban Graphics/ images: Adam Oliver, Julia Urban, Wei Wang Video Editing: Riya Garg Music: https://www.bensound.com Map: Pharexia (original author); Ratherous, AKS471883 (contributors); authors of File:BlankMap-World.svg (source file) https://commons.wikimedia.org/wiki/File:COVID-19_Outbreak_World_Map.svg Model Graphic: Zitzmann C, Kaderali L. Mathematical Analysis of Viral Replication Dynamics and Antiviral Treatment Strategies: From Basic Models to Age-Based Multi-Scale Modeling. Front Microbiol. 2018;9:1546. Published 2018 Jul 11. doi:10.3389/fmicb.2018.01546. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6050366/ PUFA graphics Arachidonic Acid: PubChem Identifier: CID 444899 https://pubchem.ncbi.nlm.nih.gov/compound/444899 Docosahexaenoic Acid: PubChem Identifier: CID 445580 https://pubchem.ncbi.nlm.nih.gov/compound/445580 SARS CoV-2 graphic inspired by : CDC/ Alissa Eckert, MSMI; Dan Higgins, MAMS https://vm.tiktok.com/ZMJUPk61h/https://static.igem.org/peertube/streaming-playlists/hls/32634c1c-cb1f-4b96-85a7-4b5e5d6e0b42/28cba540-f286-4987-96dc-ca77badc8cd0-master.m3u8https://video.igem.org/videos/embed/7dTbnNtFW1UhyBjyo36AUb118092020-09-25T16:15:19.057ZTherapeuticsNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/7bbkDjqk6vDreLAiUooVzShttps://video.igem.org/lazy-static/thumbnails/65bbec0c-f36b-49c8-aad3-56b199c1221a.jpgUCL: Microbial Desalination Plastic Degradation Cell (2020) - Project Promotion [Multilingual]We’re the UCL iGEM 2020 team. This year, our project focuses on tackling two global issues, plastic pollution and freshwater scarcity, with one solution. We propose a microbial desalination cell (MDC) that utilizes a bacterial co-culture of engineered species to degrade plastic and generate electricity for driving saline water desalination. In this video, we introduce the two global problems, explain how the MDC works, and present an application of our project - irrigation. **https://2020.igem.org/Team:UCL** *Credits Cast - Stefan Hristov, Juliette Champaud, Anna Su Voices & Script - Oliver Fernandez, Anna Su, Stefan Hristov, Juliette Champaud Animation - Software used: Animaker - Oliver Fernandez, Juliette Champaud Video editing - Juliette Champaud Subtitles & Translations - Li Xu, Oliver Fernandez, Juliette Champaud, Anna Su Music - 'Rescue crew' from Microsoft photos music library Facts - UNwater.org, OURWORLDINDATA.org Special thanks to Laide Ibiyemi, Li Xu, Pedro Garcia and the UCL iGEM team's supervisors for advice given every step of the way.* Follow us on social media: Instagram: https://www.instagram.com/p/CA42Wv9D3Vf/?utm_source=ig_web_copy_link Facebook: https://touch.facebook.com/UCLiGEM/ Twitter: https://twitter.com/ucligem?lang=en Youtube channel: https://www.youtube.com/channel/UC1dosgf2_1j9zoBeiYYqXCw/featured GitHub: https://github.com/UCL-iGEM-2020https://static.igem.org/peertube/streaming-playlists/hls/3202a41e-f762-4fe4-b8ea-9f377e6e8cb0/5edbe7d0-ae5f-482a-bd6d-cc0dd7a33005-master.m3u8https://video.igem.org/videos/embed/7bbkDjqk6vDreLAiUooVzS1180152020-09-25T16:16:20.349ZUnitedKingdomEuropeEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/28bL8f6yBn1C1xjCxSDBychttps://video.igem.org/lazy-static/thumbnails/37058eeb-1fe3-4272-88bf-dbffbf27ee66.jpgWilliam_and_Mary: TheraPUFA (2020) - Project Promotion [English]To address the urgent need for broad spectrum antiviral therapies, we at William & Mary iGEM are designing an antiviral nasal probiotic and investigating its feasibility through extensive mathematical modeling. The probiotic would secrete polyunsaturated fatty acids (PUFAs), which may possess antiviral effects, and respond intelligently to inflammation. Our mathematical model aims to quantify PUFA produced and its effect on viral load and cytokine production, taking into account spatial heterogeneity within the nasal cavity. http://2020.igem.org/Team:William_and_Mary CREDITS PI : Dr. Saha Voice Over: Beteel Abu-Ageel, Avery Bradley, Matt Dennen, Riya Garg, Min Guo, Josh Hughes, Adam Oliver, Julia Urban, Wei Wang, Hantao Yu Captions: Adam Oliver Filming: Matt Dennen, Riya Garg, Josh Hughes, Adam Oliver, Julia Urban Graphics/ images: Adam Oliver, Julia Urban, Wei Wang Video Editing: Riya Garg Music: https://www.bensound.com Map: Pharexia (original author); Ratherous, AKS471883 (contributors); authors of File:BlankMap-World.svg (source file) https://commons.wikimedia.org/wiki/File:COVID-19_Outbreak_World_Map.svg Model Graphic: Zitzmann C, Kaderali L. Mathematical Analysis of Viral Replication Dynamics and Antiviral Treatment Strategies: From Basic Models to Age-Based Multi-Scale Modeling. Front Microbiol. 2018;9:1546. Published 2018 Jul 11. doi:10.3389/fmicb.2018.01546. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6050366/ PUFA graphics Arachidonic Acid: PubChem Identifier: CID 444899 https://pubchem.ncbi.nlm.nih.gov/compound/444899 Docosahexaenoic Acid: PubChem Identifier: CID 445580 https://pubchem.ncbi.nlm.nih.gov/compound/445580 SARS CoV-2 graphic inspired by : CDC/ Alissa Eckert, MSMI; Dan Higgins, MAMS Experts and Stakeholders: Dr. Anders Cervin: https://clinical-research.centre.uq.edu.au/profile/296/anders-cervin Lydia Mapstone: http://2017.igem.org/Team:Edinburgh_OG/Notebook Dr. Rachel Lappan https://vm.tiktok.com/ZMJUP...https://static.igem.org/peertube/streaming-playlists/hls/0919fa03-4632-4451-b2e6-0e715540e37f/44ddc13b-c178-4395-9ad4-e1f5f279d7fe-master.m3u8https://video.igem.org/videos/embed/28bL8f6yBn1C1xjCxSDByc1190572020-09-25T16:23:51.292ZTherapeuticsNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/cbyHQeMYYbn4kUR5ZfKj64https://video.igem.org/lazy-static/thumbnails/565c9b00-ca85-4ad4-afac-80232a4c7288.jpgAlma: Poisoned River (2020) - Project Promotion [English]Over half a century ago, a chemical spill in our community left local waterways and soils filled with pollutants that have led to ecological trauma. This includes smaller bird populations, softer eggs, and the inability to reproduce. Our solution: create a biosensor that will be a cheap and effective way to increase screening measures to more effectively allocate resources and efforts to bring life back to our local community. https://2020.igem.org/Team:Alma Credits: Production Bitworks Narration Abigail Killian Appearances (in order) Dr. Devin Camenares Tatym Plath Connor Arens Captions Jessica Araway - Spanish Diana Bisenova - Russian Khanssaa Canning - French, Arabic Dr. Brian Doyle - Portugese Music FrauMuller Link: https://www.youtube.com/watch?v=i9RmByd1YTk Follow us on social media: Facebook: https://www.facebook.com/IGEM-Alma-College-100953815034826 Instagram: @almaigemhttps://static.igem.org/peertube/streaming-playlists/hls/5a8e20cd-a763-4fa2-ae07-3e1a1b4aab65/148d0c94-eb9a-4478-87c6-e914c5d476b4-master.m3u8https://video.igem.org/videos/embed/cbyHQeMYYbn4kUR5ZfKj6410805032020-09-25T16:26:45.609ZNorthAmericaUnitedStatesEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/oQQNVK47BRAEvkhqmCWeQ5https://video.igem.org/lazy-static/thumbnails/2d8aab31-5fd7-4c46-9c67-d4dd3eeb1d98.jpgUC_San_Diego: Bacsygen (2020) - Project Promotion [English]We first trained a classification algorithm to classify whether a bacteria affected a tumor-resisting pathway or not, and then fed this information into our Generative Adversarial Network to create a synthetic bacterial genome with multiple tumor-suppressing features. This solution avoids the culturing of multiple microbes in a clinical setting for bacteriotherapy. Furthermore, this individual microbe can be used as a carrier for targeted delivery of immunotherapeutic drugs to combine the treatment effects for better efficacy. https://2020.igem.org/Team:UC_San_Diego Script and Subtitles: Joseph Tsai Animation and Recording: Ishan Ranjanhttps://static.igem.org/peertube/streaming-playlists/hls/b8fad4c5-d2ac-4c46-a0cd-deee51d69be8/61264e62-cfcf-4085-8cea-c9ac7962f984-master.m3u8https://video.igem.org/videos/embed/oQQNVK47BRAEvkhqmCWeQ51090452020-09-25T16:34:19.978ZNorthAmericaUnitedStatesTherapeuticsYES2020 Project PromotionsNOhttps://video.igem.org/w/oo6wDZTppw8SopeyyNCSTkhttps://video.igem.org/lazy-static/thumbnails/513ecf3c-e3a3-495d-98b0-6ee02f4c48e6.jpgWilliam_and_Mary: TheraPUFA (2020) - Project Promotion [French]To address the urgent need for broad spectrum antiviral therapies, we at William & Mary iGEM are designing an antiviral nasal probiotic and investigating its feasibility through extensive mathematical modeling. The probiotic would secrete polyunsaturated fatty acids (PUFAs), which may possess antiviral effects, and respond intelligently to inflammation. Our mathematical model aims to quantify PUFA produced and its effect on viral load and cytokine production, taking into account spatial heterogeneity within the nasal cavity. http://2020.igem.org/Team:William_and_Mary CREDITS PI : Dr. Saha Voice Over: Josh Hughes Translation: Josh Hughes Translation editing: Nora Pollard Captions: Adam Oliver Filming: Matt Dennen, Riya Garg, Josh Hughes, Adam Oliver, Julia Urban Graphics/ images: Adam Oliver, Julia Urban, Wei Wang Video Editing: Riya Garg Music: https://www.bensound.com Map: Pharexia (original author); Ratherous, AKS471883 (contributors); authors of File:BlankMap-World.svg (source file) https://commons.wikimedia.org/wiki/File:COVID-19_Outbreak_World_Map.svg Model Graphic: Zitzmann C, Kaderali L. Mathematical Analysis of Viral Replication Dynamics and Antiviral Treatment Strategies: From Basic Models to Age-Based Multi-Scale Modeling. Front Microbiol. 2018;9:1546. Published 2018 Jul 11. doi:10.3389/fmicb.2018.01546. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6050366/ PUFA graphics Arachidonic Acid: PubChem Identifier: CID 444899 https://pubchem.ncbi.nlm.nih.gov/compound/444899 Docosahexaenoic Acid: PubChem Identifier: CID 445580 https://pubchem.ncbi.nlm.nih.gov/compound/445580 SARS CoV-2 graphic inspired by : CDC/ Alissa Eckert, MSMI; Dan Higgins, MAMS Experts and Stakeholders: Dr. Anders Cervin: https://clinical-research.centre.uq.edu.au/profile/296/anders-cervin Lydia Mapstone: http://2017.igem.org/Team:Edinburgh_OG/Notebook Dr. Rachel Lappan https://vm.tiktok.com/ZMJUPk61h/https://static.igem.org/peertube/streaming-playlists/hls/b53ed20f-04b4-4a17-af9f-6847b1279aa9/2e458d12-d898-4a1e-abf1-4b4a36f67c04-master.m3u8https://video.igem.org/videos/embed/oo6wDZTppw8SopeyyNCSTk120072020-09-25T16:36:55.578ZTherapeuticsNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/9uUsK3VtjBdpP6og7fzJivhttps://video.igem.org/lazy-static/thumbnails/7bdef2a9-c529-491c-9d97-5c1b61321960.jpgGreatBay_SCIE: ShroomSweeper (2020) - Project Promotion [English]**Title:** ShroomSweeper **Abstract:** Our project focuses on a rapid, portable ALFA (Aptamer Lateral Flow Assay) test strip for the detection of a prevalent mushroom toxin, amatoxin. In our independently made video, we recall our thoughts and relive interesting moments as the project progresses, giving a detailed demonstration of our hardware mechanism. We believe that our project will vastly improve the method of mushroom toxin detection. [Wiki](https://2020.igem.org/Team:GreatBay_SCIE) | [Presentation](https://video.igem.org/videos/watch/a91aebc6-3068-4e1f-a3da-4485e9f014fc) **Credits:** Winnie He, Ginny Fan, Katherine Wang, Alex Wang, Lambert Wang, Chloe Ou, Regina Ru, Roger Wang, Adonie Dong, Max Chen, Yiming Chen, Jacky Xu, Yeqing Zong, He Zhao, Rocky Yuhttps://static.igem.org/peertube/streaming-playlists/hls/44d243df-3b8a-4b04-8e2a-64844db2df67/3dec1d26-3e0a-4b18-a233-5e9d149fc058-master.m3u8https://video.igem.org/videos/embed/9uUsK3VtjBdpP6og7fzJiv11709552020-09-25T16:38:26.464ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/numvAApdCKfKdwhismx67chttps://video.igem.org/lazy-static/thumbnails/70b37bb7-9ebd-45e7-a816-faef07c3d18c.jpgSUNY_Oneonta: Ca2LF (2020) - Project Promotion [English]This video introduces the inspiration behind our team’s project Confirming A2 Alleles using Luminescence in the Field (CA2LF). In this video we showcase issues that affect small dairy farms in our area, and how we hope our project will help farmers enter a niche market, production of A2 milk, as a way to help small family farms become more sustainable with help from synthetic biology. https://static.igem.org/peertube/streaming-playlists/hls/ae056098-c33a-4f06-b263-76ea47c2b9b3/39740530-5d44-4a8d-be1e-3286d4e6d706-master.m3u8https://video.igem.org/videos/embed/numvAApdCKfKdwhismx67c1200542020-09-25T16:47:34.679ZUnitedStatesNewApplicationNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/sD1EbrrWRavdYBaeiCqiaChttps://video.igem.org/lazy-static/thumbnails/072040cb-5280-4acb-a851-954d3a93c7fb.jpgAHUT-ZJU-China: Carbon Dioxide Capturer 2.0 (2020) - Project Promotion [English]Abstract:Greenhouse Effect is one of the most important problems facing mankind today. It caused by environmental pollution refers to the phenomenon of heating up the earth's surface. It will bring the following serious consequences: 1) increasing in diseases and insect pests on the earth; 2) causing sea level rise; 3) causing abnormal climate and increasing in ocean storms; 4) causing drought and increasing in the area of desertification. We try to solve this problem by controlling CO2 emissions. https://static.igem.org/peertube/streaming-playlists/hls/d7b887c3-7884-4139-999e-0165f19745f2/202ee5bf-7834-4108-971d-491f93b8b90b-master.m3u8https://video.igem.org/videos/embed/sD1EbrrWRavdYBaeiCqiaC1170832020-09-25T16:48:10.071ZChinaAsiaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/tybvnrnCi4HFi1K49DT5aohttps://video.igem.org/lazy-static/thumbnails/a52f2d6e-15d1-4485-a50f-fe601763a64a.jpgIISER-Tirupati_India: Coli Kaze (2020) - Project Promotion [Malayalam]This is IISER Tirupati's iGEM 2020 team with project Coli Kaze. Our project aims for the in situ bioremediation of antibiotics to combat antimicrobial resistance. Our genetically engineered bacteria Coli Kaze would be used to degrade the antibiotics present in farm-based excreta while ensuring bio-safety. https://2020.igem.org/Team:IISER-Tirupati_India Content: Omkar Mohapatra, Shubhrika Jain. Video: Jenochristina J P. Audio: Jenochristina J P, Tejas Borkar. Script: Punnya A J. Voice-over: Punnya A J. https://www.instagram.com/igem_iisertirupati/?hl=en https://www.facebook.com/search/top?q=igem%20iiser%20tirupati https://twitter.com/IIiserthttps://static.igem.org/peertube/streaming-playlists/hls/df2504ed-0923-4780-824d-a4049b42a138/3b1af4b0-a420-4116-8f59-2c1ed0e44650-master.m3u8https://video.igem.org/videos/embed/tybvnrnCi4HFi1K49DT5ao1200112020-09-25T16:49:04.932ZEnvironmentAsiaIndiaYES2020 Project PromotionsNOhttps://video.igem.org/w/31VdZhhSDggWmhMVLrDVuthttps://video.igem.org/lazy-static/thumbnails/c5908a7d-99cc-487b-b52b-032f40cad1b7.jpgHeidelberg: The Legend of Cellda (2020) - Project Promotion [English]Abstract: Our goal is to create a dynamic toolbox providing the tools for RNA and protein mediated cell regulation for the scientific community: Thereby we want to tackle the following modular interactions: 1. RNA-guided RNA modification 2. RNA-RNA interaction 3. RNA-protein interaction 4. protein-protein interaction These modules can be used to implement Cas-less gene editing and various tools for industrial and therapeutic applications. Wiki Link: https://2020.igem.org/Team:Heidelberg Credits: Members of the Team (In order they appear): Mario Wisbar, Lucas Arnoldt, Jannick Berger, Julia Langer Voice Over: Charlotte Westhoven (Not a team member) Script: Fabian Bradic, Wangjun Hu, Lucas Arnoldt Camera: Fabian Bradic and Lucas Arnoldt Video Editing: Fabian Bradic and Wangjun Hu Design: Fabian Bradic Animations: Wangjun Hu Director: Fabian Bradic Background Music: ‘Video Game Music -”Fix The Gear”’ by Oscar Owl Other links: Instagram: https://www.instagram.com/igem.heidelberg/ Twitter: https://twitter.com/igemhd YouTube: https://www.youtube.com/channel/UCc3vCrkwT8bKnXXBI0TXhsAhttps://static.igem.org/peertube/streaming-playlists/hls/105313e6-0691-4504-95d9-83f54fdf007f/f5c1e596-2fb5-4cd6-94bf-13649527041e-master.m3u8https://video.igem.org/videos/embed/31VdZhhSDggWmhMVLrDVut11902072020-09-25T16:50:11.990ZFoundationalAdvanceGermanyEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/wkJQUtvfzUe9HpbYZgr2oXhttps://video.igem.org/lazy-static/thumbnails/0719e803-ab07-4558-bb52-9f598173a56c.jpgHamburg: Unicorn - an amaizeing concept (2020) - Project Promotion [English]This is a fairytale about a unicorn wandering around through nature and realising that plants are endangered by several threats, such as droughts and a growing number of plant pandemics. On its way through crop fields, the unicorn encounters a special cornfield with genetically modified corn. Our new mechanism can be used to save all plants! Wiki-Link: https://2020.igem.org/Team:Hamburg Credits: Narrators Linda Schiffmann Agata Zielnica Script Antonia Gocke Mathias Schmidt Illustration Stefanie Tuchtenhagen Video Editing Stefanie Tuchtenhagen Unicorn Design Prabhjot Kaur Sher Gill Recording Christoph Steinhard (projektwerft) Sound Editing Lukas Schulte Music Marcel Zimmeck iGEM Team Hamburg 2020 Unicorn an aMAIZEing concept Other links: Instagram: www.instagram.com/igemhamburg/ Twitter: twitter.com/iGEM_Hamburg Youtube: www.youtube.com/channel/UC4HuI1tFcQ94XBEp2zmL9BA https://static.igem.org/peertube/streaming-playlists/hls/f5b3b1c9-79c1-4d42-a6c4-75fa3c44a4cf/02bbb26f-0291-4cef-bfe5-e07e252175bf-master.m3u8https://video.igem.org/videos/embed/wkJQUtvfzUe9HpbYZgr2oX1130982020-09-25T16:51:34.203ZGermanyEuropeFood&NutritionYES2020 Project PromotionsNOhttps://video.igem.org/w/jpcHXwYe33epd9NNjJgqqihttps://video.igem.org/lazy-static/thumbnails/c546ce42-bd67-4025-a054-d02b5fc33d07.jpgUChicago: Optizyme (2020) - Project Promotion [English]Abstract: Our overarching goal is to develop an effective means of optimizing a novel system that uses 4 enzymes from E. coli to degrade PET to catechol (an aromatic compound with many industrial applications) using computational methods. We have developed an algorithm for optimizing turnover rate. We believe that our methods may offer groups working in similar systems of biosynthesis an opportunity for significantly increasing system efficiency and output. Wiki Link: https://2020.igem.org/Team:UChicago Credits: - Team Members: Patrick Sun, Michelle Awh, Avery Rosado - Animation/Script: Avery Rosado Instagram: https://www.instagram.com/uchicago.igem/https://static.igem.org/peertube/streaming-playlists/hls/9501d3d0-246f-4576-88a9-e57d8443b999/8c413f4f-8faf-445f-8377-d846b24827bf-master.m3u8https://video.igem.org/videos/embed/jpcHXwYe33epd9NNjJgqqi1100382020-09-25T16:52:25.250ZEnvironmentNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/vSHqcru2pNA7RmvWBNt1kEhttps://video.igem.org/lazy-static/thumbnails/34b4498a-e71f-48e2-adc6-4f7e5a4735d6.jpgWilliam_and_Mary: TheraPUFA (2020) - Project Promotion [Hindi]To address the urgent need for broad spectrum antiviral therapies, we at William & Mary iGEM are designing an antiviral nasal probiotic and investigating its feasibility through extensive mathematical modeling. The probiotic would secrete polyunsaturated fatty acids (PUFAs), which may possess antiviral effects, and respond intelligently to inflammation. Our mathematical model aims to quantify PUFA produced and its effect on viral load and cytokine production, taking into account spatial heterogeneity within the nasal cavity. http://2020.igem.org/Team:William_and_Mary CREDITS PI : Dr. Saha Voice Over: Riya Garg Translation: Kanupriya Garg Filming: Matt Dennen, Riya Garg, Josh Hughes, Adam Oliver, Julia Urban Graphics/ images: Adam Oliver, Julia Urban, Wei Wang Video Editing: Riya Garg Music: https://www.bensound.com Map: Pharexia (original author); Ratherous, AKS471883 (contributors); authors of File:BlankMap-World.svg (source file) https://commons.wikimedia.org/wiki/File:COVID-19_Outbreak_World_Map.svg Model Graphic: Zitzmann C, Kaderali L. Mathematical Analysis of Viral Replication Dynamics and Antiviral Treatment Strategies: From Basic Models to Age-Based Multi-Scale Modeling. Front Microbiol. 2018;9:1546. Published 2018 Jul 11. doi:10.3389/fmicb.2018.01546. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6050366/ PUFA graphics Arachidonic Acid: PubChem Identifier: CID 444899 https://pubchem.ncbi.nlm.nih.gov/compound/444899 Docosahexaenoic Acid: PubChem Identifier: CID 445580 https://pubchem.ncbi.nlm.nih.gov/compound/445580 SARS CoV-2 graphic inspired by : CDC/ Alissa Eckert, MSMI; Dan Higgins, MAMS Experts and Stakeholders: Dr. Anders Cervin: https://clinical-research.centre.uq.edu.au/profile/296/anders-cervin Lydia Mapstone: http://2017.igem.org/Team:Edinburgh_OG/Notebook Dr. Rachel Lappan https://vm.tiktok.com/ZMJUPk61h/https://static.igem.org/peertube/streaming-playlists/hls/f1edbbe0-5b09-43dc-9ae7-bb8f31d1cc6c/76a27ba4-9c71-47b5-84ae-27ebba003275-master.m3u8https://video.igem.org/videos/embed/vSHqcru2pNA7RmvWBNt1kE118042020-09-25T16:53:25.649ZTherapeuticsNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/2tadBANHAZB1BSeo9gmykdhttps://video.igem.org/lazy-static/thumbnails/d3bf6175-5003-42d6-bbae-8a576b0314ea.jpgWilliam_and_Mary: TheraPUFA (2020) - Project Promotion [Arabic]To address the urgent need for broad spectrum antiviral therapies, we at William & Mary iGEM are designing an antiviral nasal probiotic and investigating its feasibility through extensive mathematical modeling. The probiotic would secrete polyunsaturated fatty acids (PUFAs), which may possess antiviral effects, and respond intelligently to inflammation. Our mathematical model aims to quantify PUFA produced and its effect on viral load and cytokine production, taking into account spatial heterogeneity within the nasal cavity. http://2020.igem.org/Team:William_and_Mary CREDITS PI : Dr. Saha Voice Over: Beteel Abu-Ageel Translation: Hannan Daqqa Filming: Matt Dennen, Riya Garg, Josh Hughes, Adam Oliver, Julia Urban Graphics/ images: Adam Oliver, Julia Urban, Wei Wang Video Editing: Riya Garg Music: https://www.bensound.com Map: Pharexia (original author); Ratherous, AKS471883 (contributors); authors of File:BlankMap-World.svg (source file) https://commons.wikimedia.org/wiki/File:COVID-19_Outbreak_World_Map.svg Model Graphic: Zitzmann C, Kaderali L. Mathematical Analysis of Viral Replication Dynamics and Antiviral Treatment Strategies: From Basic Models to Age-Based Multi-Scale Modeling. Front Microbiol. 2018;9:1546. Published 2018 Jul 11. doi:10.3389/fmicb.2018.01546. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6050366/ PUFA graphics Arachidonic Acid: PubChem Identifier: CID 444899 https://pubchem.ncbi.nlm.nih.gov/compound/444899 Docosahexaenoic Acid: PubChem Identifier: CID 445580 https://pubchem.ncbi.nlm.nih.gov/compound/445580 SARS CoV-2 graphic inspired by : CDC/ Alissa Eckert, MSMI; Dan Higgins, MAMS Experts and Stakeholders: Dr. Anders Cervin: https://clinical-research.centre.uq.edu.au/profile/296/anders-cervin Lydia Mapstone: http://2017.igem.org/Team:Edinburgh_OG/Notebook Dr. Rachel Lappan https://vm.tiktok.com/ZMJUPk61h/https://static.igem.org/peertube/streaming-playlists/hls/0be3e6a2-ea37-41e6-999d-4ab92d509eea/45ab8217-63cb-482e-b85f-f9665cc804e4-master.m3u8https://video.igem.org/videos/embed/2tadBANHAZB1BSeo9gmykd118062020-09-25T16:54:20.569ZNorthAmericaTherapeuticsUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/1i2jdsmY2mN36UBGd1GH4Chttps://video.igem.org/lazy-static/thumbnails/ae5e321d-d630-4c16-90e7-2e6e64bf095d.jpgMoscow: HaploSense (2020) - Project Promotion [English]In March, the probability that different Sars-CoV-2 genotypes can cause different symptoms motivated us to create a detection system “HaploSense” (haplotype aka genotype). However, there was no strong correlation between Sars-CoV-2 genotypes, caused symptoms, and treatment. At the same time, we found out that there is a need for hepatitis C virus quick genotyping, and that is how we got the idea. Our system can be optimized for any other RNA viruses if needed.https://static.igem.org/peertube/streaming-playlists/hls/02607432-cf7e-47e9-807b-c051cbed6cd6/b54d4573-789f-4067-8a8c-0bc35833d6a6-master.m3u8https://video.igem.org/videos/embed/1i2jdsmY2mN36UBGd1GH4C1140742020-09-25T16:55:30.129ZDiagnosticsRussianFederationEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/6kT3muGnAYCDn1NEja1yPahttps://video.igem.org/lazy-static/thumbnails/b9a659ad-e910-4ac7-b010-3965a94db6d4.jpgUIUC_Illinois: Viralizer (2020) - Project Promotion [English]Viralizer Promotional Video presented by UIUC Illinois. Our project focuses on computational investigation of structural effects of mutations in the coronavirus spike protein through creation of a database containing spike sequences and models. Our website also provides visualization of virus propagation over space and time through incorporation of a phylogenetic tree. https://2020.igem.org/Team:UIUC_Illinois Credits: Mary Cook, Sachin Jajoo, Yan Luo, Suva Narayan, Royal Shrestha, Angela Yoon, Anna Fedders, Carl Schultz, Christopher Rao, Danny Ryerson, Matthew Waugh, William Woodruff, Diwakar Shukla, Mohammed El-Kebir, Erik Procko, Huimin Zhao https://www.instagram.com/illinoisigem/?hl=enhttps://static.igem.org/peertube/streaming-playlists/hls/2b4447a1-1a4e-4a4e-a84b-46f7649e307f/befe4616-dc63-462a-ac50-25efdac33354-master.m3u8https://video.igem.org/videos/embed/6kT3muGnAYCDn1NEja1yPa1190482020-09-25T16:58:02.528ZNorthAmericaUnitedStatesSoftwareYES2020 Project PromotionsNOhttps://video.igem.org/w/jttto2X7FWZWPrhb3vdpZ1https://video.igem.org/lazy-static/thumbnails/9f06d4c1-f703-4fff-a1fd-ca2bded76f53.jpgSEHS-China: Histamine Killer (2020) - Project Promotion [English] Abstract: Our video shows the two broad directions of our project through two small life examples. It explains that the purpose of our program is to help treat hay fever allergy and to detect histamine content. Wiki Link: https://2020.igem.org/Team:SEHS-China Credits: Zihan Xu, Hao Zheng, Ruicheng Miao, Jinghan Yang, Zisu Wang, Yifei Qu, Yudong Liang, Qiaoyu Wang, Tong Jin, Ruizeng Wang; Camaraman: Jiacheng Wang; Post-production: Ruicheng Miao, Jiacheng Wang, Jinghan Yang, Ruizeng Wang;https://static.igem.org/peertube/streaming-playlists/hls/959a8207-e03a-4e58-80fd-8d11553c8096/c2b07076-5f0f-4b0b-b252-6786c9822403-master.m3u8https://video.igem.org/videos/embed/jttto2X7FWZWPrhb3vdpZ11180482020-09-25T16:59:30.688ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/1ne8VM9c2phZp56onMXiEghttps://video.igem.org/lazy-static/thumbnails/7ae84f78-5ffa-4556-8fc0-3f15f523be76.jpgXMU-China: Antea-Glyphosate (2020) - Project Promotion [English]**Title:** Antea-Glyphosate **Abstract:** Tea is deeply rooted in Chinese culture. For a long period, a large amount of glyphosate has been used as a herbicide in tea gardens, the problem of pesticide residues cannot be ignored. XMU-China aims at developing an efficient glyphosate detection and degradation system. Taking care of the earth by tiny bacteria, we here promise a better future of tea. [Wiki](https://2020.igem.org/Team:XMU-China) | [Presentation](https://video.igem.org/videos/watch/3c832f2b-f812-4d30-82e9-e9ef107f8e33) **Credits:** Script: Junhong Chen, Siru Zhou Logic checked by: Shichen Geng, Siru Zhou, Shi Zhang, Zhichun Yang, Yixian Zheng, Jinzhu Mao Voice actor: Shichen Geng Voice recorded by: Hongyu Su from Xiamen University Broadcasting Station Animation: Yangqi Deng Music: "If we know all the laws of Nature" by Robert Farmer Consultant: Jisheng Xie, Yuan Li, Junhong Chen [Twitter](https://twitter.com/xmu_igem) | [Email](mailto:igem_xmu@163.com)https://static.igem.org/peertube/streaming-playlists/hls/02f6b705-eeb3-41db-ae7b-67e20cdc6497/5e7de54b-a1fa-4d8a-ba6d-cf3c72dc2252-master.m3u8https://video.igem.org/videos/embed/1ne8VM9c2phZp56onMXiEg120017862020-09-25T17:00:22.791ZChinaAsiaFood&NutritionYES2020 Project PromotionsNOhttps://video.igem.org/w/rsf2rR4UfjwMrg5qu2tMn5https://video.igem.org/lazy-static/thumbnails/9865859e-11e5-4575-ac8e-bafb9823c48e.jpgEstonia_TUIT: SPARKLE (2020) - Project Promotion [English]Abstract: Estonia_TUIT introduces SPARKLE: a fast, easy, adjustable platform for lipids production. The developed yeast strain can be used as a base in research and cosmetics, pharmaceutical, fuel, and other industries. Our platform not only allows us to accumulate high amounts of lipids in special structures - lipid droplets but also overcomes laborious extraction steps by synthesizing special enzymes that make cells pop-up and release the product. Wiki Link: https://2020.igem.org/Team:Estonia_TUIT Credits: Mart Loog, Ilona Faustova, Artemi Maljavin, Mihkel Örd, Nastassia Shtaida, Alissa Agerova, Avishan Aghayari, Anna Akulich, Amina Aliyeva, Nihat Aliyev, Norin Bhatti, Turan Badalli, Irina Borovko, Nadezhda Chulkova, Dmytro Fedorenko, Klāvs Jermakovs, Tatyana Kan, Valida Kazimova, Viacheslav Kiselev, Gleb Kovalev, Valeria Leoshko, Mykhailo Lytvynenko, Anna Makhotina, Dags Macs, Glib Manaiev, Frida Matiyevskaya, Mark Merzlikin, Juli Mukhadze, Alar Okas, Johanna Olesk, Aleksandra Panfilova, Aleksandrs Rebriks, Davit Rizhinashvili, Ekaterina Sedykh, Jhalak Sethi, Aleksandra Shabanova, Muazzamkhon Yusupova, Maksym Zarodniuk Music: Party On; Trailer Epic Action by RomanSenykMusic. Other links (Optional): Facebook: @iGEMEST https://www.facebook.com/iGEMEST/ Instagram: @igemestonia https://www.instagram.com/igemestonia/ https://static.igem.org/peertube/streaming-playlists/hls/ce1e729b-95ca-4a73-9bc8-d81ae41abde2/825d9e62-b813-44e4-b770-75c9464cc307-master.m3u8https://video.igem.org/videos/embed/rsf2rR4UfjwMrg5qu2tMn511401282020-09-25T17:01:46.120ZEstoniaManufacturingEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/trbXJj9Dd1vfyy9L963TVshttps://video.igem.org/lazy-static/thumbnails/b70d46fe-e715-45fd-b070-156afb871aa8.jpgIISER-Tirupati_India: Coli Kaze (2020) - Project Promotion [Telugu]This is IISER Tirupati's iGEM 2020 team with project Coli Kaze. Our project aims for the in situ bioremediation of antibiotics to combat antimicrobial resistance. Our genetically engineered bacteria Coli Kaze would be used to degrade the antibiotics present in farm-based excreta while ensuring bio-safety. https://2020.igem.org/Team:IISER-Tirupati_India Content: Omkar Mohapatra, Shubhrika Jain. Video: Jenochristina J P. Audio: Jenochristina J P, Tejas Borkar. Script: Srividya Vyjayanthi T. Voice-over: Srividya Vyjayanthi T. https://www.instagram.com/igem_iisertirupati/?hl=en https://www.facebook.com/search/top?q=igem%20iiser%20tirupati https://twitter.com/IIiserthttps://static.igem.org/peertube/streaming-playlists/hls/de2b17ca-a74c-4d8c-8366-d99cc55033e8/c965445b-0be7-428f-bf76-cd900cc07e4a-master.m3u8https://video.igem.org/videos/embed/trbXJj9Dd1vfyy9L963TVs1200112020-09-25T17:02:49.773ZEnvironmentIndiaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/py8LNhFJepvNTMsJr7dME2https://video.igem.org/lazy-static/thumbnails/1e600f8d-a22e-4f8b-b305-c91ebe92840d.jpgUofUppsala: Nanoflex (2020) - Project Promotion [English]Our project aims to create a cellular biosensor adaptable to detect your analytes of choice. Its design contains a sensory module, where nanobodies interact with the targets, activating the signal amplification module, which will result in an output signal visible to the naked eye. Placing this system in easy-to-use format we intend to offer a standardized, flexible and accessible detection system. Wiki: https://2020.igem.org/Team:UofUppsala Credits: Video direction: Blanca Valero Martínez, Ruta Upite Filming: Alexandra-Livia Vilcu, Dorottya Marko, Anisha Khan Drone footage: Andreas Myrén Music: bensound.com, Puffs by Text Me Records / Social work (Youtube Audio Library) Subtitles: Dorottya Marko Editing: Louise Castro de Jesus Narration: Anisha Khan Participating team members: Israa Aly Abdou, Björn Ancker Persson, Thomas Andersson, Saria Azam, Emelie Bringeland,Núria Garriga Alonso, Martín González Burgos, Xiguo He, Tereza Hubáčková, Anisha Khan, Therese Koivula, Dorottya Marko, Sebastian Moes, Milica Plavsic, Elnaz Samadianzad, Blanca Valero Martínez, Hui Yu, Linnéa Yuan Andersson, Samuel Zargani Facebook: https://www.facebook.com/iGEMUppsala Instagram: https://www.instagram.com/igem.uppsala/ TikTok: https://www.tiktok.com/@igemuppsala https://static.igem.org/peertube/streaming-playlists/hls/bebec79b-b012-4ccd-ac56-5b14c6231f51/44d69721-7c20-437f-8348-2df3addefc56-master.m3u8https://video.igem.org/videos/embed/py8LNhFJepvNTMsJr7dME211801222020-09-25T17:05:00.158ZNewApplicationSwedenEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/29D5MMuWCRs9KfbhpgtCRmhttps://video.igem.org/lazy-static/thumbnails/37d72f1c-70ec-4806-b74d-a73278cbb48e.jpgGroningen: RootPatch (2020) - Project Promotion [English]Smashed, fried or simply cooked: we all love potatoes. However, most people do not know that potatoes are under attack! All over the world, parasitic nematodes infect potato plants at the roots leading to severely reduced growth. Therefore, we, team Groningen, have developed RootPatch, a bio-based solution to fight the parasitic nematode Globodera pallida. Interested how? Then join us for a breath-taking journey to the potato roots in our promotional video, where art meets science.https://static.igem.org/peertube/streaming-playlists/hls/094df117-c96f-4c7b-820b-a8bf8d62d4c6/eed0480c-0c92-4424-bc3b-dcc5cd95c099-master.m3u8https://video.igem.org/videos/embed/29D5MMuWCRs9KfbhpgtCRm12006252020-09-25T17:09:16.180ZFood&NutritionNetherlandsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/hs1K2EWKgVCXKbx7AhjC7thttps://video.igem.org/lazy-static/thumbnails/d40556a6-93c7-40cb-8055-f10638f7d630.jpgUM_Macau: BREAC (2020) - Project Promotion [English]Abstract: This is UM_Macau team promotion video. The name of our project is Biofilm-Removing E. coli for Aquarium Cleaning (BREAC). Our project aims at using genetically engineered bacteria which can search for biofilm, attach to biofilm in aquarium and release enzymes for degradation. Our project logo is: BREAC, let the scavengers take a break! Wiki link: http://2020.igem.org/Team:UM_Macau Credits: Director: Snow Actor/Voice actor: Michael Post-editing: Jack Snow Herry Cameraman: Aggie Herry Email: um.igem.202020@gmail.com https://static.igem.org/peertube/streaming-playlists/hls/85340386-e80c-48b2-9020-8443ca740097/2c018c10-2737-40a9-a72e-2bede6725049-master.m3u8https://video.igem.org/videos/embed/hs1K2EWKgVCXKbx7AhjC7t1180412020-09-25T17:06:11.337ZEnvironmentAsiaMacaoYES2020 Project PromotionsNOhttps://video.igem.org/w/5zwpxVesGJbN3Kd8icRmGChttps://video.igem.org/lazy-static/thumbnails/989ab591-c33d-470c-8054-ac36c1ee338e.jpgKorea_HS: Hyperstable Antibody for Intracellular targeting (2020) - Project Promotion [English]Abstract: Hello! We are Team Korea HS from South Korea. Continuing the last year's project on CPP tagged scFv(F8) antibody, this year we are engineering the CPP tagged scFv to graft Ras, an intracellular antigen that causes uncontrolled cell proliferation when mutated. The antibody therapy presents a new approach to cancer therapeutics that excludes the conventional side effects of cancer therapy including normal cell death. Our team is extremely excited to take part in IGEM 2020! Wiki Link: https://2020.igem.org/Team:Korea_HS Credits: Music In My Dreams - LAKEY INSPIRED Video Making Yoonyee Song Jina Bae Dohoon Kim Jonathan Lee Yeonjo Jung Melissa Kim Yun Youngseo Instructors Jungwoo Choe Other links (Optional): Instagram ID: koreahs2020 https://static.igem.org/peertube/streaming-playlists/hls/2512d662-51fb-44af-a1f5-a691fad0a1bc/d005e73d-2a51-4b2d-817e-aef9dcb47923-master.m3u8https://video.igem.org/videos/embed/5zwpxVesGJbN3Kd8icRmGC1070922020-09-25T17:10:19.759ZKoreaRepublicOfHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/2QvPZpKTgRDNnyxAGUE9nahttps://video.igem.org/lazy-static/thumbnails/bc66c74c-3764-4757-85e8-95470240e3b0.jpgIISER-Tirupati_India: Coli Kaze (2020) - Project Promotion [Marathi]This is IISER Tirupati's iGEM 2020 team with project Coli Kaze. Our project aims for the in situ bioremediation of antibiotics to combat antimicrobial resistance. Our genetically engineered bacteria Coli Kaze would be used to degrade the antibiotics present in farm-based excreta while ensuring bio-safety. https://2020.igem.org/Team:IISER-Tirupati_India Content: Omkar Mohapatra, Shubhrika Jain. Video: Jenochristina J P. Audio: Jenochristina J P, Tejas Borkar. Script: Purva Damale. Voice-over: Yogeshwari Kshirsagar. https://www.instagram.com/igem_iisertirupati/?hl=en https://www.facebook.com/search/top?q=igem%20iiser%20tirupati https://twitter.com/IIiserthttps://static.igem.org/peertube/streaming-playlists/hls/0edf38ae-a64e-4efe-b8cd-72d98d9ae41b/43fa0b76-63d4-4d47-9e2a-095784b2d585-master.m3u8https://video.igem.org/videos/embed/2QvPZpKTgRDNnyxAGUE9na120042020-09-25T17:12:04.715ZAsiaEnvironmentIndiaYES2020 Project PromotionsNOhttps://video.igem.org/w/dyiSr1qwC4QgpthEF4zc9Khttps://video.igem.org/lazy-static/thumbnails/c16cc06d-fcd3-4329-82b9-d7143a4c39f3.jpgIISER-Tirupati_India: Coli Kaze (2020) - Project Promotion [Tamil]This is IISER Tirupati's iGEM 2020 team with project Coli Kaze. Our project aims for the in situ bioremediation of antibiotics to combat antimicrobial resistance. Our genetically engineered bacteria Coli Kaze would be used to degrade the antibiotics present in farm-based excreta while ensuring bio-safety. https://2020.igem.org/Team:IISER-Tirupati_India Content: Omkar Mohapatra, Shubhrika Jain. Video: Jenochristina J P. Audio: Jenochristina J P, Tejas Borkar. Script: R Raajalakshmi, Powlin P. Voice-over: Elizabeth. https://www.instagram.com/igem_iisertirupati/?hl=en https://www.facebook.com/search/top?q=igem%20iiser%20tirupati https://twitter.com/IIiserthttps://static.igem.org/peertube/streaming-playlists/hls/65b07a1e-c8a1-4bf4-955f-dc1484f396bf/5eb31d43-0ded-471e-98d9-3b4908b1c42b-master.m3u8https://video.igem.org/videos/embed/dyiSr1qwC4QgpthEF4zc9K120082020-09-25T17:12:49.221ZIndiaAsiaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/vXpQEWNSCzCH15AsDPyApehttps://video.igem.org/lazy-static/thumbnails/eb4b8901-667c-48e4-9a32-0ea9f26b1ac7.jpgUPCH_Peru: CRIOPROT (2020) - Project Promotion [English]Abstract: How can we mitigate the crop damage due to frost season? Our team proposed to develop an antifreeze product based on antifreeze proteins in order to apply it externally to the plants. This way we try to improve the quality of life of the peruvian farmers and in the future we expect this product to be available for other countries. Wiki link: https://2020.igem.org/Team:UPCH_Peru Credits: We are deeply thankful to Diana Ricaldi and Ricardo Ricaldi for recording the scenes and allowing us to share part of the peruvian andean region, their home. We also thank Norma Jara for the drawings. And we want to highlight the amazing work of our technology team (Isabel Ruiz, Diego Benites, Valeria Villar and Jesus Durand). “It is a pleasure to share the peruvian agricultural reality with the world” - Ricardo Ricaldi. Music: Song: DungBeatle - Andean Celebration (VLOG MUSIC - No Copyright) Music provided by VLOG MUSIC - No Copyright. Video Link: https://youtu.be/LQEKlL5doPY Other links: Instagram: @igem_upch_peru Twitter: @igem_upchperu Facebook: @igem.upch.peru Webpage: https://www.crioprot.com/ https://static.igem.org/peertube/streaming-playlists/hls/f2959eb1-80e2-43e0-95e8-3c44cb308e9b/f4609099-94d3-46a3-abba-b0a09027129a-master.m3u8https://video.igem.org/videos/embed/vXpQEWNSCzCH15AsDPyApe12002862020-09-25T17:13:54.581ZLatinAmericaFood&NutritionPeruYES2020 Project PromotionsNOhttps://video.igem.org/w/rREutVnbQmKZhkFBnHTotihttps://video.igem.org/lazy-static/thumbnails/e100bf0c-04bf-44c4-ba87-43cf2e5047ff.jpgStony_Brook: LightSwitch (2020) - Project Promotion [English]Abstract: The past few decades have seen great advancements in the agricultural field, specifically with the use of genetically modified (GM) crops. GM crops provide many advantages including protection from pests and pathogens and increased crop yields. However, they increase the possibility of gene flow. In our video we introduce LightSwitch, an optogenetic killswitch capable of providing control over the individual organism. Its implementation in indoor farms will provide the farmers increased control over their crops! Wiki Link: https://igem-sbu.github.io/Wiki-2020/ Credits: Narration: Melissa King and Aneeqa Majid Cinematography: Alexis Choi and Melissa King Animation/Drawings: Laiba Ahmed Editing: Alexis Choi and Adit Anand Instagram: igem.stonybrookhttps://static.igem.org/peertube/streaming-playlists/hls/d163a1d7-0573-443a-9060-fa16f4bf5e2f/a03e157f-c589-4746-b8e4-5674f66142dd-master.m3u8https://video.igem.org/videos/embed/rREutVnbQmKZhkFBnHToti990342020-09-25T17:22:12.844ZEnvironmentNorthAmericaUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/r3YHnynKF3bwV62JssiwLihttps://video.igem.org/lazy-static/thumbnails/9c5bf3e2-ad21-4cbc-b2ad-5090eb64c786.jpgNantes: The A3 Project (2020) - Project Promotion [English]Our project aims to respond to a local issue that also affects other countries in the world: green tides. Indeed, these tides represent an economic and health issue for the municipalities of the region of French Brittany. Through our video, you will understand the stakes of this phenomenon, and the response we want to provide. Because we think it is by starting with small changes that we will lead to big innovations. Wiki Link: https://2020.igem.org/Team:Nantes Credits: Contributors : Valériane Thobie, Arthur Charrier, Jonathan Dheilly, Mylène Sorin, Antoine Bochet, Caroline Le Gal, Sahra Karzazi, Thomas Morand, Axel Codault, Camille Domenger, Sacha Guillet, Tiphaine Chapeau, Christelle Ravonjiarivelo, Antoine Aupy Mehdi Kheroufi, Lucie Gillet, Antoine Guyot, Natali Gospodinova Dr. Gautreau, Dr. Deleris, Dr. Camberlein, Dr. Le Breton, Dr. Dintinger, Dr. Montiel Music proposed by La Musique Libre : Isolated - Gedanken : https://youtu.be/5c5mHxfvLr4 Isolated: https://youtube.com/IsolatedMusichttps://static.igem.org/peertube/streaming-playlists/hls/cadee7a4-a117-436a-8cee-3477a3ec16c9/2fd06ef5-ede2-4dbf-8f9a-e15f995ecac6-master.m3u8https://video.igem.org/videos/embed/r3YHnynKF3bwV62JssiwLi1170482020-09-25T17:25:55.970ZFranceEuropeEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/xaRLg3YnCKcqQe5WDqWK2Nhttps://video.igem.org/lazy-static/thumbnails/6a12e553-4b17-4da5-b740-0b6a7eeb0c51.jpgDUT_China: Reboot T4 (2020) - Project Promotion [Chinese]Abstract: Bacterial resistance is increasing dramatically. Here we are developing a yeast artificial chromosome-based platform to effectively engineer and reboot phages. We demonstrate this platform by rebooting the T4 phage. The T4 genome will be transformed into yeast with four plasmid backbones. The four plasmids will form a large plasmid. Then the large plasmid will be introduced into E. coli, and the engineered phages will be rebooted. Wiki Link: https://2020.igem.org/Team:DUT_China Credits: Video: Aohui Liu, Tian Li, Qian Yu, Wenning Li, Qiannan Wu Special thanks: Zhiwei Zhu, Ruotian Zhang, Siyu Yang, Bolong Li Music: whoosh from dapaidang video editing helper journey to the light (b) from http://www.aigei.com/ Other links: Our emai: igem_dlut@163.com https://static.igem.org/peertube/streaming-playlists/hls/fc6ba8f4-e0aa-473b-8192-d458df5d4404/c1a42ffc-d336-4a3a-b869-337cbd075d71-master.m3u8https://video.igem.org/videos/embed/xaRLg3YnCKcqQe5WDqWK2N1030652020-09-25T17:26:39.944ZFoundationalAdvanceChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/wBnE4NcfYpEPoujEW9EGTBhttps://video.igem.org/lazy-static/thumbnails/90b4a2f6-054b-4f8a-a94e-efc6eb215914.jpgIISER-Tirupati_India: Coli Kaze (2020) - Project Promotion [Oriya]This is IISER Tirupati's iGEM 2020 team with project Coli Kaze. Our project aims for the in situ bioremediation of antibiotics to combat antimicrobial resistance. Our genetically engineered bacteria Coli Kaze would be used to degrade the antibiotics present in farm-based excreta while ensuring bio-safety. https://2020.igem.org/Team:IISER-Tirupati_India Content: Omkar Mohapatra, Shubhrika Jain. Video: Jenochristina J P. Audio: Jenochristina J P, Tejas Borkar. Script: Chandrika Mohapatra, Omkar Mohapatra. Voice-over: Chandrika Mohapatra. https://www.instagram.com/igem_iisertirupati/?hl=en https://www.facebook.com/search/top?q=igem%20iiser%20tirupati https://twitter.com/IIiserthttps://static.igem.org/peertube/streaming-playlists/hls/f7e289b5-14ef-435c-a627-8eeeb1973201/6ab5a631-4495-458c-b828-19961aaf28b4-master.m3u8https://video.igem.org/videos/embed/wBnE4NcfYpEPoujEW9EGTB120092020-09-25T17:34:26.332ZAsiaEnvironmentIndiaYES2020 Project PromotionsNOhttps://video.igem.org/w/aKjMyKMxZerBnHBuXfhjBkhttps://video.igem.org/lazy-static/thumbnails/d2113733-a8a2-4989-829c-11a3aebc40c3.jpgTongji_China: Hetoul: Heme to ultrasonic imaging (2020) - Project Promotion [Chinese]Abstract: Chronic lower gastrointestinal bleeding is a manifestation of lower gastrointestinal disorders. It features small amount of bleeding and patients’ unawareness. To locate the bleeding site, instead of traditional ways, team Tongji China designed Hetoul, the engineered bacteria that can realize more rapid localization of the bleeding site in lower gastrointestinal tract. Further, Hetoul can also play the role as a diagnosis tool for lower gastrointestinal diseases, such as colorectal cancer. Wiki Link: https://2020.igem.org/Team:Tongji_China Credits: Consultant: Jiacheng Jiang Scriptwriter Group: Jiacheng Jiang, Wenting Lu, Haocun Wang Screenwriter& Editor& Recording: Qile He Voiceover: Yunzhe Kang Animation: YingYing Yue, Qile He, Xiangqi Huang Acknowledgement: Dr. Yaozong Yuan, Dr. Qian Cheng,Dr. Zhigang Huang, Dr. Bing LuDr. Bing Wang, Dr. Jing Zhang, Dr. Ye Leng, Dr. Ping Li, Dr. Hongbing Wang, Dr. Shaorong Gao, Dr. Chong Li, Dr. Jiayu Chen, Dr. Chao Zhang,Dr. Changsheng Du, Libo Xing, Xin Gui, Yunzhe Kang, Yuxiao Fan, Huan Zhang, Tongji_Software 2020 iGEM team, SJTU-BioX-Shanghai 2020 iGEM team, WHU-China 2020 iGEM team Special Acknowledgement: Tongji University, School of Life Science and Technology of Tongji University, Shanghai Ruijin Hospital, Shanghai East Hospital, Shanghai Institute of Materia Medica, Chinese Academy of Sciences, Vazyme, Olympus Corporation, Becton Dickinson and Company, Snapgene, Geneious Prime Other links: Twitter: https://twitter.com/Tongji_China bilibili: https://space.bilibili.com/596431606?from=search&seid=9469165238086650583 Instagram: https://instagram.com/tongji_china?r=nametag https://static.igem.org/peertube/streaming-playlists/hls/4eeece9d-3a2c-4ddb-979e-75090937e0c9/67fc6fb6-bbf2-48a2-a24e-2e25ea1e85bc-master.m3u8https://video.igem.org/videos/embed/aKjMyKMxZerBnHBuXfhjBk1120182020-09-25T17:35:01.266ZAsiaDiagnosticsChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/36htbZe9NEGVe2YHJSZzSThttps://video.igem.org/lazy-static/thumbnails/55a7a7d3-1e48-4818-95b5-05071fb4ce61.jpgHK_HCY: Biofilm Tackler (2020) - Project Promotion [English]Biofuel is an important energy source. Yet its production efficiency has been adversely affected due to the biofilm formation. To tackle this problem, we are going to interrupt their quorum sensing mechanism in order to prevent communication between bacteria. Biofilm thus cannot be formed. We plan to deal with the quorum quenching molecules and the receptors of bacteria which is responsible for biofilm formation. By disrupting them, biofilm formation can also be reduced. https://static.igem.org/peertube/streaming-playlists/hls/10ef253a-2112-4414-9575-b515fec81cb3/f5b392f4-ff16-42b8-9933-d8b55df1f836-master.m3u8https://video.igem.org/videos/embed/36htbZe9NEGVe2YHJSZzST1190682020-09-25T17:35:47.571ZHighSchoolAsiaHongKongYES2020 Project PromotionsNOhttps://video.igem.org/w/kNB6xV89kMrJK12c7HjQ1chttps://video.igem.org/lazy-static/thumbnails/97dfd325-447e-404b-93c3-efc839c68a1a.jpgNantes: The A3 Project (2020) - Project Promotion [French]Notre projet vise à répondre à un problème local qui touche également d'autres pays du monde : les marées vertes. En effet, elles représentent un enjeu économique et sanitaire pour les communes bretonnes. A travers notre vidéo, vous comprendrez les enjeux liés à ce phénomène, et la solution que nous souhaitons apporter. Car nous pensons que c’est en commençant par des petits changements, que l’on aboutira à de grandes innovations Lien Wiki : https://2020.igem.org/Team:Nantes Crédits : Valériane Thobie, Arthur Charrier, Jonathan Dheilly, Mylène Sorin, Antoine Bochet, Caroline Le Gal, Sahra Karzazi, Thomas Morand, Axel Codault, Camille Domenger, Sacha Guillet, Tiphaine Chapeau, Christelle Ravonjiarivelo, Antoine Aupy Mehdi Kheroufi, Lucie Gillet, Antoine Guyot, Natali Gospodinova, Dr Gautreau, Dr Deleris, Dr Camberlein, Dr Le Breton, Dr Dintinger, Dr Montiel Musique proposée par La Musique Libre : Isolated - Gedanken : https://youtu.be/5c5mHxfvLr4 Isolated : https://youtube.com/IsolatedMusichttps://static.igem.org/peertube/streaming-playlists/hls/a05f79f8-9f56-47a7-95e1-5e0093e2d42b/f093ea6e-5c26-4144-9526-e96571bb149a-master.m3u8https://video.igem.org/videos/embed/kNB6xV89kMrJK12c7HjQ1c1010252020-09-25T17:37:53.774ZFranceEuropeEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/itqxUJuxv55hfH4L2kVhyPhttps://video.igem.org/lazy-static/thumbnails/696acf7d-79b3-4b9f-b161-af6c5564282a.jpgUCL: Microbial Desalination Plastic Degradation Cell (2020) - Project Promotion [English]We’re the UCL iGEM 2020 team. This year, our project focuses on tackling two global issues, plastic pollution and freshwater scarcity, with one solution. We propose a microbial desalination cell (MDC) that utilizes a bacterial co-culture of engineered species to degrade plastic and generate electricity for driving saline water desalination. In this video, we introduce the two global problems, explain how the MDC works, and present an application of our project - irrigation. **https://2020.igem.org/Team:UCL** *Credits Cast - Stefan Hristov, Juliette Champaud, Anna Su Voices & Script - Oliver Fernandez, Anna Su, Stefan Hristov, Juliette Champaud Animation - Software used: Animaker - Oliver Fernandez, Juliette Champaud Video editing - Juliette Champaud Subtitles & Translations - Li Xu, Oliver Fernandez, Juliette Champaud, Anna Su Music - 'Rescue crew' from Microsoft photos music library Facts - UNwater.org, OURWORLDINDATA.org Special thanks to Laide Ibiyemi, Li Xu, Pedro Garcia and the UCL iGEM team's supervisors for advice given every step of the way.* Follow us on social media: Instagram: https://www.instagram.com/p/CA42Wv9D3Vf/?utm_source=ig_web_copy_link Facebook: https://touch.facebook.com/UCLiGEM/ Twitter: https://twitter.com/ucligem?lang=en Youtube channel: https://www.youtube.com/channel/UC1dosgf2_1j9zoBeiYYqXCw/featured GitHub: https://github.com/UCL-iGEM-2020https://static.igem.org/peertube/streaming-playlists/hls/8d7f918e-9e84-4c5b-be6f-24fccad9b947/d483c354-0b0f-495e-9037-8009a74a9153-master.m3u8https://video.igem.org/videos/embed/itqxUJuxv55hfH4L2kVhyP11901642020-09-25T17:42:16.261ZUnitedKingdomEnvironmentEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/wd6mgMhHnjEY5gXue4Ukeghttps://video.igem.org/lazy-static/thumbnails/f26da28e-0b2b-48cc-b3ac-d7238c19b772.jpgQdai: P.coli (2020) - Project Promotion [Chinese]Abstract: While phosphorus is one of the most important resources for agricultural food production, it becomes a great driver of water pollution when it enters the environment. Further, it is expected to be depleted in 70 years so recycling of it is a big issue. We looked into phosphorus metabolism of bacteria and hope to enhance its capacity of phosphorus accumulation by using synthetic biology approach. We believe our project contributes to sustainability. Wiki Link: https://2020.igem.org/Team:Qdai Credits: *Presenter* Haruki Koyama Jiaxin Wu Hiromu Inoue Shino Suda *Editor* Haruki Koyama Kenta Takemori Other links (Optional): Twitter→https://twitter.com/igemqdaihttps://static.igem.org/peertube/streaming-playlists/hls/f4a261bd-7e66-4475-84af-439182c2049d/5dce4da8-3817-4329-ba68-5c921b36da18-master.m3u8https://video.igem.org/videos/embed/wd6mgMhHnjEY5gXue4Ukeg1200212020-09-25T17:44:45.925ZEnvironmentAsiaJapanYES2020 Project PromotionsNOhttps://video.igem.org/w/vURaqKu49EycmW5XiWWzUHhttps://video.igem.org/lazy-static/thumbnails/d4ffd145-4da3-48ee-9e92-effebbd8574f.jpgBIT-China: Lemon CP (2020) - Project Promotion [English]We constructed a system with the intention of dynamically regulating two kinds of microflora, introducing quorum sensing and toxic protein systems in E.coli with the intention of regulating the different growth rates, and introducing galactosidase to regulate the production of downstream yeast.https://static.igem.org/peertube/streaming-playlists/hls/f239fea2-5e8e-4bfb-911b-32779ce01ec5/d584c149-dd5a-42e8-89fb-30b493354db4-master.m3u8https://video.igem.org/videos/embed/vURaqKu49EycmW5XiWWzUH11301192020-09-25T17:45:50.391ZAsiaChinaManufacturingYES2020 Project PromotionsNOhttps://video.igem.org/w/v4nSdmWts8VFxncqHS36WZhttps://video.igem.org/lazy-static/thumbnails/188424ad-b2e8-4461-b148-dae9aa0af115.jpgCAU_China: Abaddon Remedy (2020) - Project Promotion [English]In Revelation, Abaddon is the king of locusts who brought disasters to the world. In fact, locust swarms have caused chaos throughout history. To solve the problem of food insecurity caused by locust, CAU_China did project: ABADDON REMEDY. We are interested in finding a efficient biopesticide which can kill locust based on RNAi. We hope that ABADDON REMEDY will bring us a world with less locusts, and also less pesticide contamination. https://2020.igem.org/Team:CAU_China Credit to picture by Yanyi Song and Xinyi Jiang. Credit to video produced by Yongze Chen and credit to narrator Yuge Wei. Credit to caption by Yuge Wei, Bangqi Zhu, Qinxin Zhu and Ran Wang. Wechat Official Account: 中农iGEMhttps://static.igem.org/peertube/streaming-playlists/hls/eb51ba4a-14aa-4f8c-8952-95500d8d3eb9/8cf85d4a-1f73-430a-b1a5-5801862d7bc0-master.m3u8https://video.igem.org/videos/embed/v4nSdmWts8VFxncqHS36WZ1150332020-09-25T17:50:46.461ZAsiaChinaEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/iVPuvQpwggPYqXMD8AcEMQhttps://video.igem.org/lazy-static/thumbnails/6f7799b7-e776-4329-9c58-0421e6277f66.jpgSJTU-software: RICAID (2020) - Project Promotion [English]Encouraged by the achievement in China, our project is going to provide adequate new knowledge of rice genetics and a solid theoretical foundation for rice breeding. Our project is designed to assist experimental research of stress-tolerance related to one of Oryza sativa L. We will build a database including gene, RNA-seq, protein and other important information of Oryza sativa. We will also help evaluate and tag the undiscovered genes so that we can recommend genes most possibly related to stress-tolerance to researchers. Video clipper：Xiao Yiqi, Ruiqi Lyu BGM: Intro-the XX Video Material Resource:https://www.bilibili.com/video/BV1pe41147Zh?from=search&seid=16605747159425251829 https://static.igem.org/peertube/streaming-playlists/hls/912f0b77-0939-4f5e-be29-c7846b373fb2/ac1924d2-fab4-4891-ab6e-4dcd7c6cdb7e-master.m3u8https://video.igem.org/videos/embed/iVPuvQpwggPYqXMD8AcEMQ1180492020-09-25T17:55:28.423ZChinaAsiaSoftwareYES2020 Project PromotionsNOhttps://video.igem.org/w/5bGeeSskwVMNAMfU38ChMvhttps://video.igem.org/lazy-static/thumbnails/d6800655-7eb3-41ef-af15-60eff811c888.jpgStanford: SEED (2020) - Project Promotion [English]Motivated by the testing shortage during COVID-19 pandemic, our team set out to improve diagnostic scalability. Our solution is SEED (Self-replicating Embedded Environmental Diagnostic), a platform to detect biology with biology. Our technology is based on naturally competent, genetically engineered B. subtilis cells that produce a customizable readout once they detect a predetermined nucleic acid sequence. SEED can be deployed as an at-home test, an environmental monitor, and more. https://2020.igem.org/Team:Stanford/SEED Credits: Kelly Dunn (Animated Videos), Lauren Ramlan (Narration and Editing), Chris Neimeth (Captioning), Gillian Peraza (Writing and Artwork), Joshua Ramlan (Artwork), and the rest of the Stanford iGEM team (Concept and Writing) https://static.igem.org/peertube/streaming-playlists/hls/21e2c8ac-cb6d-4430-b0ba-10098a1b19df/16a2c29a-98f6-48b0-998b-1fb457620b08-master.m3u8https://video.igem.org/videos/embed/5bGeeSskwVMNAMfU38ChMv6904832020-09-25T17:56:12.230ZUnitedStatesDiagnosticsNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/m4Zw9WSEd1jGxDLhWqttushttps://video.igem.org/lazy-static/thumbnails/9b3f7f38-0ed9-4e7f-9a87-50195ac5b54e.jpgEdinburgh: Finding NEMO (2020) - Project Promotion [English]The University of Edinburgh iGEM team is characterising a platform for biosensors to be implemented not only in cell free, but transcription only. The system utilises fluorescent RNA aptamers as reporters rather than conventional protein methods. Operating in transcription only has wide ranging benefits including sensing speed, better biosafety, accessibility of production and reduced production costs. Check out our wiki : https://2020.igem.org/Team:Edinburgh TEAM Edinburgh iGEM 2020 Finding NEMO Promotional video SCRIPT EDITORS AND VIDEO COORDINATORS : Matteo Cese, Zichen Feng PARTICIPANTS : Ziyuan Xie, Samy zebda, Ying Yang, Jingyao Zhou, Matteo Cese, Bingyu Zhou, Ziyue Luo, Nan Ya, Zichen Feng, William Gouskov CAMERA OPERATORS Matteo Cese, Nan Ya, Jingyao Zhou, Simona Gromovaite MUSIC Matteo Cese VIDEOEDITING Matteo Cese ADDITIONAL FOOTAGE Shihan Tang - Untitled video Maustindesign videvo.net Royalty-Free -Old Man Storr Dinosawr_rob videvo.net Creative Commons 3.0 Unported (CC BY 3.0) -Edinburgh Castle -Timelaspe of The Meadows in Edinburgh showing Arthurs Seat -Panning Timelaspe of Shadows on a Building Contact us : Email - edigem2020@gmail.com Facebook – IGEM Edinburgh 2020 Linkedin – iGEM University of Edinburghhttps://static.igem.org/peertube/streaming-playlists/hls/a28573d1-0476-41a1-8f74-acd394f181b6/0dfcde8b-2a54-45ca-ab31-d1be5a966d3c-master.m3u8https://video.igem.org/videos/embed/m4Zw9WSEd1jGxDLhWqttus12001072020-09-25T17:59:43.028ZEuropeEnvironmentUnitedKingdomYES2020 Project PromotionsNOhttps://video.igem.org/w/3Y87xVqZTZPAhrSDmY39Ychttps://video.igem.org/lazy-static/thumbnails/ea4fa767-b81d-472a-b28d-ca4d955691cf.jpgCLS_CLSG_UK: CocEels (2020) - Project Promotion [English]We are CLS_CLSG_UK iGEM team, the only European high school competing in this year's competition. We aim to address the issue of drug pollution in rivers. Our project focusses on the effect of cocaine on the critically endangered European Eel. We aim to solve this problem in waste water treatment plants using genetically engineered E.Coli bacteria. https://2020.igem.org/Team:CLS_CLSG_UK Starring: Ela Tabbouche Ethan Santos Isaac Tolley Isabella Yeo Frank Isabella Yeo Frank Jared Stoloff Joseph Hee Kaavya Kanagarajah Louis Gringras Lucas Czajka Lucza Lj Nassim Younes Nassim Younes Peter Heywood Sahil Shah Yashaar Daad Yeshin Yoon Filming and editing: Jian Hui Mo 
Production assistant: Toby Cohen https://static.igem.org/peertube/streaming-playlists/hls/18084fdb-850b-4cee-98dc-4cc1edab736b/e15e38f5-a88d-4558-93bb-da174dce20cd-master.m3u8https://video.igem.org/videos/embed/3Y87xVqZTZPAhrSDmY39Yc11901482020-09-25T18:02:55.878ZUnitedKingdomHighSchoolEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/2DUiG3J4SonVZ237tgLcXfhttps://video.igem.org/lazy-static/thumbnails/074a8f25-e75e-4722-97e6-2e6c317b3da7.jpgPuiChing_Macau: FireE.coli (2020) - Project Promotion [English]Abstract: With the symbol of Macau, Ruins of St Paul’s, we demonstrated the importance of fire retardants and how traditional forms of retardant could be detrimental to the Earth. We explained how our solution could be more sustainable and provide similar or even better properties, such as retardancy and ability to attach on various surfaces. Together, with Gemi, the Fire Dragon, we explored our project, FireE.coli: Engineering E.coli to produce safe and eco-friendly flame retardant material! Wiki Link: https://2020.igem.org/Team:PuiChing_Macau Credits: Director: Alisa Leong Script Writing: Lok Chiu Alisa Leong Elly She Angie Leong Storyboard Artist: Merry Ng Narrator: Angie Leong Animators: Corinnie Hoi Elly She Camera Operator: Alisa Leong Boom Operator: Victoria Chio Editor: Victoria Chio Research: Alisa Leong Chloe Li Elly She Corinnie Hoi Jimmy Cheong Lucas Iong Victoria Chio Merry Ng Yoyo Lei Advisors: Wai Man Cheong Owen Io Lok Chiu Music resources: Youtube Audio library Other links : Facebook: https://www.facebook.com/igempuiching2020 Instagram: https://www.instagram.com/igempuiching2020/https://static.igem.org/peertube/streaming-playlists/hls/0d63e46a-eb9d-4b85-8159-d0af167e0940/ba339e05-0b31-4140-84c9-5cd39d3ae437-master.m3u8https://video.igem.org/videos/embed/2DUiG3J4SonVZ237tgLcXf11901342020-09-25T18:03:32.144ZHighSchoolMacaoAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/eZLfC1cnM4frHd1NXkkHLohttps://video.igem.org/lazy-static/thumbnails/d954d1e9-39b0-46c9-a3be-30d731fc4114.jpgIISER-Tirupati_India: Coli Kaze (2020) - Project Promotion [Hindi]This is IISER Tirupati's iGEM 2020 team with project Coli Kaze. Our project aims for the in situ bioremediation of antibiotics to combat antimicrobial resistance. Our genetically engineered bacteria Coli Kaze would be used to degrade the antibiotics present in farm-based excreta while ensuring bio-safety. https://2020.igem.org/Team:IISER-Tirupati_India Content: Omkar Mohapatra, Shubhrika Jain. Video: Jenochristina J P. Audio: Jenochristina J P, Tejas Borkar. Script: Purva Damale. Voice-over: Purva Damale. https://www.instagram.com/igem_iisertirupati/?hl=en https://www.facebook.com/search/top?q=igem%20iiser%20tirupati https://twitter.com/IIiserthttps://static.igem.org/peertube/streaming-playlists/hls/71577802-3edb-49d6-9f89-87690e5a4cda/8c8cedf8-5b64-4ba9-8419-5d5546a39914-master.m3u8https://video.igem.org/videos/embed/eZLfC1cnM4frHd1NXkkHLo119082020-09-25T18:13:04.575ZIndiaEnvironmentAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/mv4s4yVidBMqpVw5KU43fNhttps://video.igem.org/lazy-static/thumbnails/4e98441d-126e-41cc-afc0-529f303e5e14.jpgPeking: MUSE (2020) - Project Promotion [English]Abstract: Beauty is a common property among all forms of life. So why not turn the beauty of life code into some forms of art for our pleasure? This is Peking 2020. This year, we focus on Music Updating by Storage and Editing. Hope you enjoy it! Wiki: [Visit our home page](https://2020.igem.org/Team:Peking) Credits: Thanks to all Peking iGEM 2020 team members for their contribution. Special thanks to those who generously provide the video clips used in the video for free use.https://static.igem.org/peertube/streaming-playlists/hls/a60577df-cfda-4d8f-a0a7-dbc10f3dec3a/553992be-543a-4eda-88e7-7954d4b3be1a-master.m3u8https://video.igem.org/videos/embed/mv4s4yVidBMqpVw5KU43fN1190702020-09-25T18:14:15.973ZOpenChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/bAWjm5qgMT8qkAvkPF2MDahttps://video.igem.org/lazy-static/thumbnails/744cef29-1a6d-47a7-9a53-578a37b35ab1.jpgConcordia-Montreal: AstroBio & AstroYeast (2020) - Project Promotion [English]Advances in synthetic biology enable the sustainable production of food on Earth. However, in-space biomanufacturing has proved challenging. Microgravity induces global changes in gene expression profiles, triggering a stress response in cells. There is also a lack of bioinformatics tools for microgravity researchers. We developed AstroBio, an open-source database compiling microgravity-induced literature findings on gene expression changes. The database informed the development of AstroYeast, yeast strains that are resistant to microgravity-induced stress. Wiki Link: https://2020.igem.org/Team:Concordia-Montreal Credits: Footage and Simulations by NASA, Video-editing by Hajar El Mouddene and Amin Nikpayam https://static.igem.org/peertube/streaming-playlists/hls/55dc25fd-5817-4957-9f9b-dd1fd1cda6f7/5d8598d4-a041-44bf-9371-9191332c8466-master.m3u8https://video.igem.org/videos/embed/bAWjm5qgMT8qkAvkPF2MDa1110832020-09-25T18:18:08.339ZNorthAmericaCanadaSoftwareYES2020 Project PromotionsNOhttps://video.igem.org/w/qmMRgDQBZ2qwY2PyWq9j8Whttps://video.igem.org/lazy-static/thumbnails/ab6fc950-385d-4c4f-8f42-a24525a33524.jpgNOVA_LxPortugal: To Fight For Pinus Pinaster (2020) - Project Promotion [English]Pinus pinaster is endogenous to Portugal and its preservation is crucial not only due to its economic value but also for its importance to several ecosystems. Pine Wilt Disease is a deadly pest caused by a nematode, Bursaphelenchus xylophilus, that affects several areas across the globe and present in Portugal since the 90s. PineNematoFight proposes to battle this pine disease by introducing a nematicide-producing pathway in Pseudomonas putida. https://2020.igem.org/Team:NOVA_LxPortugal https://static.igem.org/peertube/streaming-playlists/hls/c5427580-1be5-4f5c-b264-053048f61754/c0b87c11-d168-4ed4-9825-d81256db6c12-master.m3u8https://video.igem.org/videos/embed/qmMRgDQBZ2qwY2PyWq9j8W12001062020-09-25T18:19:00.283ZPortugalEuropeEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/oqEEvsR9ZdmTCMezdma7jPhttps://video.igem.org/lazy-static/thumbnails/733c90c0-c386-4c80-87dc-1650bce28ed0.jpgCSMU_Taiwan: miRNA.doc (2020) - Project Promotion [Chinese]Abstract: Oral cancer is a prominent problem in Taiwan. This year, CSMU_Taiwan attempts to address this issue through a novel detection method, miRNA.doc, that would solve the current biases in oral cancer detection. This method involves targeting miRNA in saliva and an easily-accessible device, glucometer, in order to provide a non-invasive and quantitative method for oral cancer detection in hopes of bringing a more objective diagnostic result for patients. Wiki link: https://2020.igem.org/Team:CSMU_Taiwan Credits: Video Editing: Matilda Key Script: Hsiao, Tzu-Hsuan/ Jian-An, Pan/ Matilda Key / Hung Yu Chen Subtitles: Matilda Key / Jian-An, Pan Director: Chen Shen Lin Animator: Matilda Key Narrator: Jian-An, Pan Our Facebook Page: https://www.facebook.com/igemcsmutaiwan Our Instagram: https://instagram.com/igem_csmuhttps://static.igem.org/peertube/streaming-playlists/hls/b59aba7e-8f82-42d9-b433-901ad2d0df03/7b8610d3-23fb-437f-98b9-87e679a4f9ab-master.m3u8https://video.igem.org/videos/embed/oqEEvsR9ZdmTCMezdma7jP1190822020-09-25T18:19:45.254ZTaiwanAsiaDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/6GDjHtepNscfZZzSbeJxZdhttps://video.igem.org/lazy-static/thumbnails/c23dd6ef-14df-4ec1-a19a-78029a3d2629.jpgQdai: P.coli (2020) - Project Promotion [Japanese]Abstract: While phosphorus is one of the most important resources for agricultural food production, it becomes a great driver of water pollution when it enters the environment. Further, it is expected to be depleted in 70 years so recycling of it is a big issue. We looked into phosphorus metabolism of bacteria and hope to enhance its capacity of phosphorus accumulation by using synthetic biology approach. We believe our project contributes to sustainability. Wiki Link: https://2020.igem.org/Team:Qdai Credits: *Presenter* Haruki Koyama Jiaxin Wu Hiromu Inoue Shino Suda *Editor* Haruki Koyama Kenta Takemori Other links (Optional): Twitter→https://twitter.com/igemqdaihttps://static.igem.org/peertube/streaming-playlists/hls/2e2a71ec-6f56-4ddb-8ccb-aa52efe356f2/8bf81429-42be-4d02-bd8a-d7a67cdb8260-master.m3u8https://video.igem.org/videos/embed/6GDjHtepNscfZZzSbeJxZd1200232020-09-25T18:20:33.416ZAsiaEnvironmentJapanYES2020 Project PromotionsNOhttps://video.igem.org/w/t73rYXaYRbBxovtqAdnpJihttps://video.igem.org/lazy-static/thumbnails/f83c94f0-f9d7-412b-a658-bb2e3a43669c.jpgBNU-China: Automatic Barcode Creator (2020) - Project Promotion [English]Abstract: The method combining CRISPR/Cas9 with DNA barcodes attracts extensive attention in lineage tracing, but it has some limitations. To solve these problems, we control the actuation time of Cas9 by coupling it with cell division, so each cell could be automatically labeled without wasting barcodes. Then we replace gRNA with hgRNA to improve the diversity of barcodes. Furthermore, we make it possible to read this information at RNA level, which was almost impossible before. Wiki Link: https://2020.igem.org/Team:BNU-China Video Credits: Script: BNU-China Photographer: Liu Pengbo Editor: Liu Pengbo Post Production: Hu Qing Liu Pengbo Wang Yuxin Chen Huilin Actor: Zhang Jiangyue Zhang Fanmeng Li Xinmiao Narrator: Li Yumo Background Music: “Pineapple Rag” Composed by Scott Joplin (1868-1917) E-mail: 1272961839@qq.comhttps://static.igem.org/peertube/streaming-playlists/hls/db7eb70d-983c-40f5-833d-7c51e9f65799/dd1426bf-7a28-4fd9-be68-9636272e8905-master.m3u8https://video.igem.org/videos/embed/t73rYXaYRbBxovtqAdnpJi11801322020-09-25T18:21:23.981ZAsiaChinaFoundationalAdvanceYES2020 Project PromotionsNOhttps://video.igem.org/w/bRuHiPCD6L7ANKE4875NNfhttps://video.igem.org/lazy-static/thumbnails/accc29a1-ec9d-4dc2-987f-ab81052abc1e.jpgNWU-CHINA-B: Let'K Dissolve (2020) - Project Promotion [English]Abstract: Our video mainly briefly introduces our project. When the COVID—19 invaded the world, Chinese medicine was used to assist in the treatment of infected people, and one of the effective substances was discovered to be kaempferol. Our team is to add kaempferol to sugar to improve water solubility, thereby enhancing the effect of kaempferol. Wiki Link:https://2020.igem.org/Team:NWU-CHINA-B Credits:Dubbing speaker: :苯新烷 丁思琦 Material provider:秦佳丽 刘源 赵元韬（Part of the content comes from the internet） Art designer: 苯新烷 秦佳丽 孟祥旭 Scriptwriter：孟祥旭 刘源 赵元韬 Producer：孟祥旭 Other links: 1878134356@qq.comhttps://static.igem.org/peertube/streaming-playlists/hls/57e4869d-fda0-4d6c-99db-8e60b2436612/a310b9a2-8af7-4fac-b103-2b7270d33c46-master.m3u8https://video.igem.org/videos/embed/bRuHiPCD6L7ANKE4875NNf1160512020-09-25T18:36:33.490ZAsiaTherapeuticsChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/3tyiZd4iXTpDYptYJsdhBohttps://video.igem.org/lazy-static/thumbnails/e3bce010-3c8e-4757-bc55-c94ee36a90d9.jpgNYU_Abu_Dhabi: Rapid Fungal Disease Diagnostics (2020) - Project Promotion [English]Since the mid-1900s, a flesh-eating fungal disease, chytridiomycosis, has been condemning more amphibian species to extinction than any other pathogen ever recorded. Usage of diagnostics has been limited due to the testing methods being latent, expensive, and non-portable. The NYUAD iGEM group is developing a device that would let a user swab an animal at the point of capture and receive the result back in 30-60 minutes. Wiki Link: http://2020.igem.org/Team:NYU_Abu_Dhabi Credits: Special thanks to New York University Abu Dhabi for sponsoring this project and Dr. Johannes Penner Social Media Links: Facebook: https://www.facebook.com/iGEMNYUAD/ Instagram: https://www.instagram.com/nyuad.igem/ https://static.igem.org/peertube/streaming-playlists/hls/140b455b-2ab4-4a63-b1a7-2a5d98f31084/0e73230d-04a6-4819-a413-faf7a1e760dc-master.m3u8https://video.igem.org/videos/embed/3tyiZd4iXTpDYptYJsdhBo1190722020-09-25T20:08:28.901ZUnitedArabEmiratesDiagnosticsAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/twPabXZhfrtife8gKefUdXhttps://video.igem.org/lazy-static/thumbnails/4cd9cff6-f851-4af2-94cd-3cb8aa519ca8.jpgIISER-Tirupati_India: Coli Kaze (2020) - Project Promotion [Nagamese]This is IISER Tirupati's iGEM 2020 team with project Coli Kaze. Our project aims for the in situ bioremediation of antibiotics to combat antimicrobial resistance. Our genetically engineered bacteria Coli Kaze would be used to degrade the antibiotics present in farm-based excreta while ensuring bio-safety. https://2020.igem.org/Team:IISER-Tirupati_India Content: Omkar Mohapatra, Shubhrika Jain. Video: Jenochristina J P. Audio: Jenochristina J P, Tejas Borkar. Script: Moinla Ao. Voice-over: Ethazl Sherin Joseph. https://www.instagram.com/igem_iisertirupati/?hl=en https://www.facebook.com/search/top?q=igem%20iiser%20tirupati https://twitter.com/IIiserthttps://static.igem.org/peertube/streaming-playlists/hls/def41e8c-ce86-4520-bded-8423b030d45f/d2a4fa94-cdea-4575-9b0d-e227ee7c7b78-master.m3u8https://video.igem.org/videos/embed/twPabXZhfrtife8gKefUdX1200122020-09-25T19:53:41.485ZEnvironmentAsiaIndiaYES2020 Project PromotionsNOhttps://video.igem.org/w/o9yvPyEMmM4BGBkE7ne49Bhttps://video.igem.org/lazy-static/thumbnails/9bbeb9eb-e339-4ec4-acf0-fd95c123f8ce.jpgIISER-Tirupati_India: Coli Kaze (2020) - Project Promotion [English]This is IISER Tirupati's iGEM 2020 team with project Coli Kaze. Our project aims for the in situ bioremediation of antibiotics to combat antimicrobial resistance. Our genetically engineered bacteria Coli Kaze would be used to degrade the antibiotics present in farm-based excreta while ensuring bio-safety. https://2020.igem.org/Team:IISER-Tirupati_India Content: Omkar Mohapatra, Shubhrika Jain. Video: Jenochristina J P. Audio: Jenochristina J P, Tejas Borkar. Script: Omkar Mohapatra, Shubhrika Jain. Voice-over: Shubhrika Jain. https://www.instagram.com/igem_iisertirupati/?hl=en https://www.facebook.com/search/top?q=igem%20iiser%20tirupati https://twitter.com/IIiserthttps://static.igem.org/peertube/streaming-playlists/hls/b35b09c9-6db0-4d58-be0a-e548d92b2d77/5ee1d1d1-678b-4eca-b532-d78e4cb60f54-master.m3u8https://video.igem.org/videos/embed/o9yvPyEMmM4BGBkE7ne49B1190862020-09-25T19:57:18.098ZEnvironmentIndiaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/fRkju6D7HBTsGcbwXBvoZFhttps://video.igem.org/lazy-static/thumbnails/a7ca6eda-9a34-485d-93e3-91029cb2d82f.jpgZJU-China: Game Live Video of "MagnetoRUN" (2020) - Project Promotion [English]We'll elaborate how our system works by this game live video! Breast cancer is the main malignant tumor that threatens women's health. In an effort to overcome the limitations of the current technology of response evaluation in tumors, we improve the magnetosomes from magnetotropic bacteria to produce a functional contrast agent that specifically targets HER2 positive breast cancer cells. Our wiki link: 2020.igem.org/Team:ZJU-China Video making by Zhou Hui, copywriting by Cai Yihong, voice providing by Chen Jiayi，Jinyurun，Wang Weihao，music and sounds effect from: Qian Zhiqiang, offers.adobe.com/en/na/audition/offers/audition_da.html.https://static.igem.org/peertube/streaming-playlists/hls/78434aa2-5d28-4da0-ade7-897b735342c1/2722d525-d66e-4402-8042-d9ccddd3f608-master.m3u8https://video.igem.org/videos/embed/fRkju6D7HBTsGcbwXBvoZF1190682020-09-25T21:48:13.105ZAsiaChinaDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/jGhv4S1P4HZrco6MfP643Ghttps://video.igem.org/lazy-static/thumbnails/d03eddbf-f37f-480a-b237-1252cbabf64c.jpgPYMS_GZ_China: Too Much Infection (2020) - Project Promotion [English]The world is experiencing a pandemic due to the novel coronavirus SARS-CoV-2. The spike protein is continuously mutating, creating new strains of SARS-CoV-2. Therefore, with the constant mutations, the binding affinity between the RBD spike protein and the ACE2 receptors for each strain is unknown, and in turn, the infectivity of each strain is not known. Because of this, we aimed to create a pseudovirus general assay platform to test the infectivity of different strains. Wiki Link: https://2020.igem.org/Team:PYMS_GZ_China Credits: Video Creator - Emily Roshan Graphics - Nicole Douglas Text - Charlotte Zhang, Emily Roshan, Taylor Shimizu Instagram: https://www.instagram.com/igemcovid/ https://static.igem.org/peertube/streaming-playlists/hls/97646a76-b216-4711-a4bd-1c825e05fd40/68ebb435-6012-4202-9a7d-c332a876a8e9-master.m3u8https://video.igem.org/videos/embed/jGhv4S1P4HZrco6MfP643G1060302020-09-25T23:18:21.378ZChinaHighSchoolAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/nGAwMH7W499cqjHCGvgBTahttps://video.igem.org/lazy-static/thumbnails/06936a9e-ac07-4f5e-a62a-ddcd09b6bf6a.jpgUUlm: Meeting Molly The Speaking Microbe (2020) - Project Promotion [English]In this video, we can see Molly the Bacterium meeting Dominik from the iGEM_UUlm Team for the very first time. Molly is very curious to find out what the team has been working on for the last few months and Dominik does his best to answer all her questions! And knowing Molly, she surely will come back for another visit in the teams presentation to learn even more about the project!https://static.igem.org/peertube/streaming-playlists/hls/afbaf16b-05b3-4315-9e98-2a8350e8192b/8fa084fe-9733-4f69-9339-5547d2a7356b-master.m3u8https://video.igem.org/videos/embed/nGAwMH7W499cqjHCGvgBTa1100712020-09-25T23:18:52.281ZGermanyEnvironmentEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/vyooFmiFgdXXkz3tyDDSughttps://video.igem.org/lazy-static/thumbnails/055a9f17-b431-4696-b6d3-f62be08e79a7.jpgGW_DC: Lead Biosensing Filter (2020) - Project Promotion [English]Lead Water contamination has been a highly discussed and identified problem in various countries across the globe. The current methods to combat this issue involve either using a non renewable cheap filter or a expensive filtration system which most cannot afford. To combat this issue team GW_DC has developed a unique solution using K. michiganensis which naturally precipitates lead ions into solid lead. By genetically engineering this bacteria we hope to add bio sensing abilities, providing a sustainable solution for prevent lead contamination globally. https://2020.igem.org/Team:GW_DC. Credits Media taken from George Washington University Colonials (Wikipedia) Gears (pin clipart) Globe (clipart) House (freepng) Human Body Systems and Functions (YouTube) Lead Pipes (NPR) Lead Resistant Bacteria from Saint Clair River sediments and Pb removal (Bowman et al., 2018) Meuse-Argonne American Cemetery (Wikipedia) Model of the Earth (TeachEngineering) Painting Brush Bucket (pnghut ) Plumbing Pipes (JD) Small Child (pixy) Split level houses (Wikipedia) Sustainability (ISEEN) Toxic Hazard Symbol (Schizofriendian) Adobe Premier pro audio Alec Koff- Education Background Music (Youtube) Special thanks to Alexander Zanchet Dr. Erik Rodriguez Dr. Ioannis Eleftherianos Dr. Jimmy Saw Yaprak Ozakman. https://instagram.com/gwuigem?igshid=9e75y22azixr https://www.facebook.com/gwuigem https://static.igem.org/peertube/streaming-playlists/hls/ef5e9ee8-100a-492d-a7e2-1ac3a8eed747/51137399-d703-4b6d-a529-ae3ce5e862d7-master.m3u8https://video.igem.org/videos/embed/vyooFmiFgdXXkz3tyDDSug1200952020-09-26T00:10:36.543ZNorthAmericaEnvironmentUnitedStatesYES2020 Project PromotionsNOhttps://video.igem.org/w/u4KzGKwuXHeikkUEbeVHF6https://video.igem.org/lazy-static/thumbnails/db79459f-7e18-4d88-a000-b912ac359b09.jpgLethbridge_HS: tPectinACE (2020) - Project Promotion [English]Our project is tPectinACE: Targeting Pectin to Accelerate Compost Enzymatically. We chose to tackle the problem of food waste, which contributes to global warming. Our system is designed to target pectin by utilizing pectinases from the organism Paenibacillus amylolyticus. This system could be used in at-home composting units as well as industrial scale composting facilities in order to increase the efficiency of composting, making it a more attractive alternative to discarding food waste. https://2020.igem.org/Team:Lethbridge_HS Shada Aborawi, Rebecca Avileli, Jasmine Belisle, Thomas Byrne, Wenyu Chen, Kimoya Edwards, Olive Graham, Linda He, Livia Kadezabek, Charlin Li, Dominic Piper, Declan Sander, Lana VanGenderen, Elisha Wong, Marissa Wong, Michelle Wu, Laura Keffer-Wilkes, Jalyce Heller, Damian La Rosa Montes, Dia Michailidou-Koupantsis, Luke Saville Facebook: Lethbridge High School iGEM. Instagram: lethbridgehsigem. Twitter: @LethHS_iGEM. https://static.igem.org/peertube/streaming-playlists/hls/e345f8b9-bb2e-4454-a930-0d723262fc77/cc19f78f-eb03-431b-bb72-e10565e87586-master.m3u8https://video.igem.org/videos/embed/u4KzGKwuXHeikkUEbeVHF61200512020-09-26T04:45:02.845ZNorthAmericaCanadaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/dyAAFA6vCyvk94AvnXkUShhttps://video.igem.org/lazy-static/thumbnails/5fcdebc0-4d9a-4bc0-b8e8-8de547361d41.jpgKUAS_Korea: fever sensing sticker (2020) - Project Promotion [English]Abstract : In order to solve the problem of the conventional method that continuous management is difficult, the team kuas made possible quick follow-up by using a light-emitting sticker. Wiki Link : https://2020.igem.org/Team:KUAS_Korea/ Credits : KUAS_Korea Team https://static.igem.org/peertube/streaming-playlists/hls/65bac94c-3c82-44b4-890f-cfe8d8977d7c/c04977aa-66ef-48f6-a7bb-98467cf20c4e-master.m3u8https://video.igem.org/videos/embed/dyAAFA6vCyvk94AvnXkUSh960892020-09-26T10:43:18.905ZAsiaOpenKoreaRepublicOfYES2020 Project PromotionsNOhttps://video.igem.org/w/nFtodeyb9gWrZug8ZPYqtyhttps://video.igem.org/lazy-static/thumbnails/12926af1-313f-48b8-95d2-b0af7009f30c.jpgManchester: HippoSol (2020) - Project Promotion [English]HippoSol is a potential sunscreen founded on the production of a novel compound called hipposudoric acid. This naturally occurring chemical is derived from the African hippopotamus. It contains properties similar to UV filters in sunscreens; however, it's harmless to the environment, unlike most sun products that are linked to coral bleaching and the destruction of marine environments. Our team aims to synthesize this chemical in the laboratory for commercial use. 2020.igem.org/Team:Manchester Credits: Producer William Smith Editor William Smith Speaker 1 William Smith Speaker 2 Maddie Webster-Harris References: Image 1 oceanservice.noaa.gov/sunscreen Image 2 icanhasscience.com/chemistry/organic-chemistry- lessons-courtesy-of-hippo-et-al/ Image 3 knime.com Instagram: igem_manchester https://static.igem.org/peertube/streaming-playlists/hls/af92cb52-afbf-450e-8fd9-d96cf428642e/49540683-1cbe-4568-bc56-2c9c49d9b52a-master.m3u8https://video.igem.org/videos/embed/nFtodeyb9gWrZug8ZPYqty12001222020-09-26T11:10:36.143ZUnitedKingdomEnvironmentEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/r7LPTRB9tXPCM9Vw17HLYyhttps://video.igem.org/lazy-static/thumbnails/70d84f61-823e-40e0-aa95-a838062670ba.jpgWarwick: ColibacTeam (2020) - Project Promotion [English]Colorectal cancer is a leading cause of death in the UK, and survival rates drop from roughly 90% in incipient stages to around 10% in late stages. Our team aims to engineer a reliable, easy-to-use and non-invasive early detection system with the use of fluorescent proteins, to indicate whether further medical investigation is needed. Credits: Art by Grace Goater Cut by Andris Gyōri Narrated by Tudor Onose, Valeriia Nadmitova, Aryan Gupta & Andris Gyōri Links: https://www.instagram.com/igem_warwick/https://static.igem.org/peertube/streaming-playlists/hls/cb668dd1-5872-4476-a16b-3fbefd1ee7c8/1cb00535-13e0-468f-a922-228113569bd1-master.m3u8https://video.igem.org/videos/embed/r7LPTRB9tXPCM9Vw17HLYy1190542020-09-26T11:43:42.766ZUnitedKingdomDiagnosticsEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/oiCuTNDpBr1zG5Y3KKHMtEhttps://video.igem.org/lazy-static/thumbnails/35cfe4c7-3e22-4309-8031-2461a4198dbd.jpgSMMU-China: Silent-CAR (2020) - Project Promotion [English]Abstract: Under the tough situation of COVID-19 pandemic, scientists are still striving to find a ‘panacea’ for those critical patients. CAR-MERTK can mediate the clearance of virus particles by macrophages without causing tissue damage. Because of its immunologically silent property for virus clearance, we call it ‘Silent-CAR’. Wiki Link: https://2020.igem.org/Team:SMMU-China Credits: Director-- Bowen Deng Edit--Yulong Wu Designer--Moyan Qi Dubber--Mengmei Zhu Tianzhen Hua Script--Tao Ouyang Kun Li Other links: https://space.bilibili.com/590822446?from=search&seid=9919978920049494920https://static.igem.org/peertube/streaming-playlists/hls/b49f2ff9-6083-4e07-a4e1-2f6ee4fc7a10/c78e6454-1395-4096-9137-7e1e5e3bcac8-master.m3u8https://video.igem.org/videos/embed/oiCuTNDpBr1zG5Y3KKHMtE1190442020-09-26T18:34:55.330ZChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/6k7XQXiEF3pFpteNZQXfFihttps://video.igem.org/lazy-static/thumbnails/2ffd3d16-50f5-4bd0-90d9-1c1749156e05.jpgBielefeld-CeBiTec: WavySense (2020) - Project Promotion [English]Description: The aim of our project “WavySense” is to establish a non-invasive contraception method. Therefore, we compared common methods like the pill and its side effects with our method. In this video we want to give you an insight in how and where we are working. Additionally, there will be some sneak peaks in our project. https://2020.igem.org/Team:Bielefeld-CeBiTec/Description CREDITS: "Camera: Niko Klassen Ramon Luna Stollmeier Script: Tamara Folk Janine Dippel Marvin Geißler Animation: Niko Klassen Post-Production: Ramon Luna Stollmeier Drone: Frederick Dürr"https://static.igem.org/peertube/streaming-playlists/hls/2b291dad-45db-4e31-b196-eed8364c7017/2048345c-8f04-4231-b697-15ebe20214e2-master.m3u8https://video.igem.org/videos/embed/6k7XQXiEF3pFpteNZQXfFi930992020-09-27T13:17:05.980ZDiagnosticsGermanyEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/nP5Eb3qCM8dZJgvNVc5nrYhttps://video.igem.org/lazy-static/thumbnails/9141b4c9-2d5d-4e28-b565-0812e8826f64.jpgKAIT_Japan: E.coli that Create Creative Environment (2020) - Project Promotion [English]KAIT_Japan: E.coli that Create Creative Environment (2020) - Project Promotion [English]https://static.igem.org/peertube/streaming-playlists/hls/b0a2bd5f-afdd-4369-8ebd-d96487ab2346/edfbe910-2d23-4a13-afe3-f8f6f2909eaa-master.m3u8https://video.igem.org/videos/embed/nP5Eb3qCM8dZJgvNVc5nrY1150552020-09-28T00:52:39.976ZNewApplicationJapanAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/5ZuX4vBZmw2PthALWkYvQMhttps://video.igem.org/lazy-static/thumbnails/983c7e31-7d03-4b16-909a-854e08a4e248.jpgHZNFHS_Hangzhou: Artificial photosynthesis (2020) - Project Promotion [English]Aiming at decreasing green house effect, we coupled electrochemical system and biological system. The electrochemical system can produce hydrogen using clean energy, and edited microorganisms take the hydrogen and carbon dioxide to produce high-valued product. Therefore, we are able to utilize solar energy to work the systems and transform carbon dioxide into organic matter—formaldehyde. wiki:https://2020.igem.org/Team:HZNFHS_Hangzhou Credits: Amazon https://nasagrace.unl.edu Beautiful Corals https://www.mcbhawaii.marines.mil/News/News-Article-Display/Article/1748120/coral-reefs-theyre-in-trouble/ Carbon cycle https://www.resilience.org/stories/2016-08-04/the-boring-carbon-cycle/ Forest Fire https://news.mongabay.com/2020/04/satellite-data-show-amazon-rainforest-likely-drier-more-fire-prone-this-year/ Greenland's Ice Melting https://www.msn.com/en-ca/video/news/greenland-s-ice-melting-7x-faster-than-in-the-90s/vi-AAK0VQe Hawaii Corals https://www.msn.com/en-ca/news/video/hawaii-corals-suffer-amid-pacific-heatwave/vi-AAHJoXH June 02 https://scripps.ucsd.edu/news/rise-carbon-dioxide-unabated NASA https://calgary.ctvnews.ca/video?clipId=1773689 North Leo Delauncey/MallOnline Permafrost http://tech.sina.com.cn/2017-11-13/doc-ifynshev5625554.shtml Photosynthesis https://www.researchgate.net/figure/Expert-drawing-of-photosynthesis-The-expert-drawing-of-photosynthesis- representing-all_fig2_257671133 Process of Photosynthesis https://courses.lumenlearning.com/microbiology/chapter/photosynthesis/ West Antarctic https://edition.cnn.com/2019/05/16/europe/antarctic-glacier-melt-scli-intl-scn/index.htl Wilkes https://nsidc.org/cryosphere/icelights/2013/10/east-antarctic-melt-probableUniversity of Alaska Fairbanks Social Media: 18667107793@qq.com https://static.igem.org/peertube/streaming-playlists/hls/286bca49-5d6c-498b-9f56-abb3db0ff2d1/8b123e96-617b-45eb-9513-8fe65cbf73ab-master.m3u8https://video.igem.org/videos/embed/5ZuX4vBZmw2PthALWkYvQM1190552020-09-28T15:09:02.918ZHighSchoolAsiaChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/c1hTuHPFZpaYkM9SWuz7bphttps://video.igem.org/lazy-static/thumbnails/1fafe3e9-47c1-4aa2-a099-94140e689fbd.jpgSHSID: Listeria Monocytognes Detective (2020) - Project Promotion [English]Abstract: For this video, our team, Sherlock in the Fridge, aims to explain the inspiration, mechanism, and application of our product by means of a creative skit. The plot begins with the mysterious death of a woman after eating contaminated watermelon, and follows the endeavors of Sherlock Holmes, (representing our team) in finding the “murderer”, Listeria monocytogenes. Please note that the final reaction used is merely for visual effect, not our final product. Wiki Link: http://2020.igem.org/Team:SHSID Credits: Emily J—Sherlock, Scriptwriter Grace C—Watson, Camera Woman, Video Editor Maechen W—Police Woman, Scriptwriter Emma H—Victim, Camera Woman Suwan L, Daniel S—Neighbors Kate L—Investigator, Camera Woman Eamon Y—Camera Woman https://static.igem.org/peertube/streaming-playlists/hls/591eeec9-c1d7-4824-b287-75dcb70c8d5b/d5de9ba8-bbeb-4e56-bd68-8f997c51257b-master.m3u8https://video.igem.org/videos/embed/c1hTuHPFZpaYkM9SWuz7bp1200472020-09-28T17:17:35.033ZChinaAsiaHighSchoolYES2020 Project PromotionsNOhttps://video.igem.org/w/jhVVGwFd3DrDA6yGUi6nsYhttps://video.igem.org/lazy-static/thumbnails/318c496f-38d0-4f2d-ad5a-267e1454e178.jpgShanghai_United: PCS Disintegrator (2020) - Project Promotion [English]Abstract: We are a group of high school students who care about social issues and want to use synthetic biology to improve human health! In recent years, the prevalence chronic kidney disease has been raised dramatically worldwide, which has brought substantial burden on both individuals and governments.This year, we are committed to using engineered probiotics to degrade the uremic toxin p-cresol and alleviate chronic kidney disease. Wiki Link: https://2020.igem.org/Team:Shanghai_United Credit: 张浩涵 Edward 张译丹Debby 李博奕Lilith 张玲月 Lynn 孙莳嘉 Kevin 潘俊健 Kingsley 王维浩Isaac 弋思远 Steven 俞昕懿Bella 李博奕Lily 黄海玥 Helen 王峙达 Getty 林浩然 Haoran 俞悦 Tina 颜以恒 Keith 余熙和 Roxy 张译丹 Debby 辛仪 Cathy 王昭颖 Laura 姜雨濛Snowy https://static.igem.org/peertube/streaming-playlists/hls/9421a111-f1e4-469d-bcbe-d55e7287ae68/03d80bd4-d208-4cbd-973d-0aec702b9708-master.m3u8https://video.igem.org/videos/embed/jhVVGwFd3DrDA6yGUi6nsY1000892020-09-28T18:07:45.288ZHighSchoolChinaAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/jvA8mQY5xdYQCrq6QKGE7ohttps://video.igem.org/lazy-static/thumbnails/8d8b430c-e0d0-47dc-9247-51974bfd9198.jpgUMaryland: Isothermal Colorimetric Assay for SARS-CoV-2 Detetcion (2020) - Project Promotion [Eng...In order to safely reopen public places at full capacity, testing must be robust to enable proper contact tracing. However, current issues with tests, such as long turnaround tests and unavailability in certain areas due to lab equipment is an ongoing issue. The team has designed a split protein dCas13-BetaLac assay that uses RNA from a nasal swab from a patient, amplifies it isothermally at 37-40C, and then produces a color change if RNA is detected. The test requires both halves of the split-protein to be in contact, hence increasing fidelity. Wiki Link: https://2020.igem.org/Team:UMaryland Credits: Pavan Bhat, Viviana Bentley, Michaela Staab, Cole Dwiggins Other Links: http://umarylandigem3.wixsite.com https://www.facebook.com/UMarylandiGEM/https://static.igem.org/peertube/streaming-playlists/hls/95e618be-168b-41f0-9e75-882476d566fa/a59aca19-a000-40c2-93ea-7719ba66f13c-master.m3u8https://video.igem.org/videos/embed/jvA8mQY5xdYQCrq6QKGE7o1200332020-09-29T13:23:18.853ZNorthAmericaUnitedStatesDiagnosticsYES2020 Project PromotionsNOhttps://video.igem.org/w/t7fKYMSXBUCBT9yPXGKKcvhttps://video.igem.org/lazy-static/thumbnails/a3d41cc5-b539-4e48-8ffb-f18ce302278a.jpgEPFL: Espress'EAU (2020) - Project Promotion [English]**Abstract:** Espress’EAU is a small, low-price and easy-to-use system that detects the presence of pesticides in water. It is intended to serve as a general preliminary analysis of water quality for small communities, enabling them to test their water more frequently and quickly take action in case of contamination. Espress’EAU uses genetically engineered yeast as a biosentinel species that produces a fluorescent readout in the presence of pesticides. **Wiki Link:** 2020.igem.org/Team:EPFL **Credits**: Footage by: Sven Spörri Editing by: Julien Salomon Intro Speaker 1: Laura Iacobucci Intro Speaker 2: Andrei Furtuna Bio Speaker: Sven Spörri Hardware Speaker: Ella Rajaonson Music: *All that* by Benjamin Tissot (also known as Bensound) https://www.bensound.com/royalty-free-music/track/all-that-chill-hop https://static.igem.org/peertube/streaming-playlists/hls/db864d31-d101-41c2-a634-3393137863ff/a0e14273-6464-4f0a-8016-d444e5a9bcde-master.m3u8https://video.igem.org/videos/embed/t7fKYMSXBUCBT9yPXGKKcv11901992020-09-29T14:09:38.661ZSwitzerlandEuropeFood&NutritionYES2020 Project PromotionsNOhttps://video.igem.org/w/wViDKzQcokZwdQicLiMt5Shttps://video.igem.org/lazy-static/thumbnails/424e10ca-ab7a-4345-af22-4412c6e30c86.jpgGA_State_SW_Jiaotong: Symbiodinium (2020) - Project Promotion [English]Abstract: The Georgia State and Southwest Jiaotong University iGEM team are focusing on the extinction of coral reefs around the globe. This infamous phenomenon is widely known as coral bleaching. In order to slow down the death of coral in the marine environments, Southwest Jiaotong and Georgia State Universities are working to genetically modify its algal symbionts in an effort to make them more tolerant to environment stressors. Wiki: https://2019.igem.org/Team:Georgia_State Credits: Georgia State University Atlanta, Georgia Southwest Jiaotong University Chengdu, Chinahttps://static.igem.org/peertube/streaming-playlists/hls/fa637515-3a73-4e28-9e73-2a7033e9c1be/65aa7bea-bcde-4afb-a4b4-bdfce5a01262-master.m3u8https://video.igem.org/videos/embed/wViDKzQcokZwdQicLiMt5S1200802020-09-29T18:22:53.876ZNorthAmericaUnitedStatesEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/vaBszRo483vCbJWRpJUK6uhttps://video.igem.org/lazy-static/thumbnails/0f9627cf-2342-4468-b87b-f9ef0256b65e.jpgZJUT_China_B: Multivirus Monitor (2020) - Project Promotion [English]Abstract: The global pandemic of COVID-19 highlights the great importance of virus detecting. Based on CRISPR Cas13, ZJUT_China_B designed "viralertor"—a multivirus detecting device, "virusee"—an interactive platform between viralertor and users,"viralibrary"—a library which is full of viral information and its corresponding crRNAs. With "viralertor", "virusee" and "viralibrary", we created "Multivirus Monitor" to accurately locate "suspected criminal viruses" and their "accomplices". Thus, there's no escape for the viruses! Wiki Link: https://2020.igem.org/Team:ZJUT_China_B Credits: ZJUT_China_Bhttps://static.igem.org/peertube/streaming-playlists/hls/ec30912a-0370-484a-937f-fb62ae5c8baa/20f99e86-bafd-4235-8d97-8c43e6afac9f-master.m3u8https://video.igem.org/videos/embed/vaBszRo483vCbJWRpJUK6u12002842020-09-30T09:16:16.729ZAsiaDiagnosticsChinaYES2020 Project PromotionsNOhttps://video.igem.org/w/4TKnomKF1jds9MkN2AtUbWhttps://video.igem.org/lazy-static/thumbnails/30cc5cdc-3b36-4fb3-8c2b-bc0fa1785742.jpgOfficial Launch of ''iGEMers of The World: Podcast by After iGEM''https://2020.igem.org/Teams/Ambassadors/Podcast Listen to new published episodes on: Spotify - https://open.spotify.com/show/0lpQNxnxXzdkFhEPh726nZ Anchor - https://anchor.fm/igem Ximalaya - https://www.ximalaya.com/keji/42254926/ The iGEM Community is boarding the podcast rocket ship! This new initiative will be a medium for the ambassadors to engage with iGEM Alumni & teams to communicate ideas about the future of iGEM and synthetic biology to a worldwide audience. We want to promote discussion and conversation around Synbio from an iGEM perspective. We will be inviting iGEM Alumni to share their stories and inspire future and current iGEMers. Topics of conversation will include how iGEM has given them direction and/or influenced their careers; whether that be in research, industry, or entrepreneurship. What are the predominant ideas in engineering and designing the future of synthetic biology that currently occupy their mind? Many iGEMers are just starting their professional careers, and hence will be part of the team of scientists that will shape the future of synthetic biology. The opportunity to connect with alumni, converse about Synbio and iGEM in a creative and focussed manner, as well as attract new audiences to the field of Synbio, is the next step in engaging and growing our community. https://static.igem.org/peertube/streaming-playlists/hls/1f85133e-5c68-48d0-b2c0-48451669cdc2/2a3739b8-6b20-4266-b48e-f5019bf45983-master.m3u8https://video.igem.org/videos/embed/4TKnomKF1jds9MkN2AtUbW36580302020-09-30T16:58:38.438ZpodcastambassadorsYESiGEM CommunityNOhttps://video.igem.org/w/9Sqmrr1y3dbHWmPEwD2kSNhttps://video.igem.org/lazy-static/thumbnails/ebf6b0c1-aa89-4263-b854-8ad34539887c.jpgTuebingen: TuebiGEM and the iGEMers (2020) - Project Promotion [English]Four heroes. One mortal enemy. One powerful weapon. This is the story of TuebiGEM, who is chosen by the incredible league of iGEMers to become part of one of the greatest battles ever fought against the evil Manganese. The villain strives for the contamination of the world’s waters and the entire global foodchain. Will TuebiGEM and the iGEMers be able to stop him with their secret weapon? Credits: Luise as TübiGEM Aarón a.k.a. El Exron as Evil Manganese Andreas as Gibson Soldier Elias as Gene Ruler Lea and Luise as Ribowitch Script by David, Aarón, Lea, Florian, Elias and Isabel Cutting by Florian, Aarón, Luise, Isabel, Anirudh and Sophia Subtitles by Benedikt and Florian Many thanks to Moritz Weinhändler for introducing us to the fine art of cutting Music used: XTaKeRuX - Free_will_posession, Here comes the King Wiki Link: https://2020.igem.org/Team:Tuebingen Website: http://igem-tuebingen.com/index Twitter: https://twitter.com/iGEMTuebingen Instagram: https://instagram.com/igem_tuebingen Facebook: https://facebook.com/igemtuebingen/https://static.igem.org/peertube/streaming-playlists/hls/47d34e33-678c-4d01-b48d-a2761aa46a66/34eb2c85-834a-4e12-9566-86addb67f21f-master.m3u8https://video.igem.org/videos/embed/9Sqmrr1y3dbHWmPEwD2kSN12002742020-10-02T15:32:27.222ZGermanyEuropeEnvironmentYES2020 Project PromotionsNOhttps://video.igem.org/w/sbiBwyEU8ffaLv6LuFcWuBhttps://video.igem.org/lazy-static/thumbnails/484137d4-abc8-4d50-9aa6-ee47d8f3f902.jpgUSTC-Software: Protein molecular simulation toolchain (2020) - Project Promotion [English]Starting from a small complaint of a senior, we are trying to combine some protein molecular simulation tools to provide an out-of-box, easy-to-use web toolchain platform. The project promotion video shows our works: To find a problem, think, and give a solution --- with the power of software technology. https://2020.igem.org/Team:USTC-Software Shooting script: Liting Tang; Cinematography: Wenhao Duan, Jichao Wang; Cutter: Jichao Wang; Starring: Yulong Ming, Xiaomeng Jin, Jiawei Liu, Zeyu Gao, Zhengtao Liu, Zhizhen Cai, Liting Tang, Jichao Wang, Wenhao Duan, Hairong Huhttps://static.igem.org/peertube/streaming-playlists/hls/d3fde59f-c6d8-4fb1-8123-02ad6686173b/96a7daf1-acab-419e-a382-7dc4551d5df3-master.m3u8https://video.igem.org/videos/embed/sbiBwyEU8ffaLv6LuFcWuB1180592020-10-03T07:35:26.717ZChinaSoftwareAsiaYES2020 Project PromotionsNOhttps://video.igem.org/w/fkwXzbGsvFPso7DobDsgjRhttps://video.igem.org/lazy-static/thumbnails/83b35604-3eb0-48ae-b647-eab5005968de.jpgCalgary: Oviita (2020) - Project Promotion [English]Abstract: OVIITA is a food-safe, beta-carotene rich strain of the yeast Yarrowia lipolytica, which will be genetically modified for the secretion of cellulase enzymes. These will allow it to be cultured inexpensively in communities as an edible nutritional yeast for the prevention of Vitamin A deficiency and intestinal parasites, in South Asia and Sub-Saharan Africa. To empower and target Oviita, we are also designing a portable Vitamin A deficiency diagnostic device. Wiki link: https://2020.igem.org/Team:Calgary Credits: Videos- ReasonTV, UMass Amherst Libraries, Videvo, The Company of Biologists, Mihir Kothari, Pexels, Hellen Keller Foundation, Music - Dream Escape by The Tides Other links: @igemcalgary (instagram, facebook, twitter)https://static.igem.org/peertube/streaming-playlists/hls/741a26c8-d1e3-423a-83d0-74fb89958d01/ffdd0ac0-69e3-40b9-8f79-22d6711469be-master.m3u8https://video.igem.org/videos/embed/fkwXzbGsvFPso7DobDsgjR11501382020-10-06T04:40:14.750ZFood&NutritionCanadaNorthAmericaYES2020 Project PromotionsNOhttps://video.igem.org/w/vLKEdBkNBqHfhF3n68qvrbhttps://video.igem.org/lazy-static/thumbnails/31e70848-bcca-4bbe-8428-4b0d47fee77b.jpgUGent2_Belgium: Bubbly (2020) - Project Promotion [English]In this video the members of team Bubbly from the UGent, Belgium present their iGEM idea: an edible pearl that acts as carrier filled with vitamin B12, the anti-inflammatory plant flavonoid naringenin and kojibiose. With this pearl they want to support the microbiome of people who suffer from stress, anxiety and/or depression. DISCLAIMER: the actual prototype is not eaten in the video and hasn’t left the laboratory. https://2020.igem.org/Team:UGent2_Belgium Cast: Benedicte Amery Bram Jacobs Milan Van Nuffel Crew: Jelena Van Nuffel Waldo Vandermeiren https://static.igem.org/peertube/streaming-playlists/hls/f118a71c-f451-40ef-b31c-b183b0271d58/0c7881b6-eb49-4296-afd8-511f1d26a6e1-master.m3u8https://video.igem.org/videos/embed/vLKEdBkNBqHfhF3n68qvrb1190772020-10-11T14:38:54.672ZBelgiumFood&NutritionEuropeYES2020 Project PromotionsNOhttps://video.igem.org/w/vz8GwULbk2TepmsU53vViZhttps://video.igem.org/lazy-static/thumbnails/c9d12370-1f94-468d-bc30-9f135a5d83b0.jpgUGent2_Belgium: Bubbly (2020) - Project Promotion [Dutch]In this video the members of team Bubbly from the UGent, Belgium present their iGEM idea: an edible pearl that acts as carrier filled with vitamin B12, the anti-inflammatory plant flavonoid naringenin and kojibiose. With this pearl they want to support the microbiome of people who suffer from stress, anxiety and/or depression. DISCLAIMER: the actual prototype is not eaten in the video and hasn’t left the laboratory. https://2020.igem.org/Team:UGent2_Belgium Cast: Benedicte Amery Bram Jacobs Milan Van Nuffel Crew: Jelena Van Nuffel Waldo Vandermeiren https://static.igem.org/peertube/streaming-playlists/hls/ef794f64-b7f5-42b2-b414-b034a4329faf/bd5f0f1d-94f8-4f7f-aebe-42dc62051440-master.m3u8https://video.igem.org/videos/embed/vz8GwULbk2TepmsU53vViZ1190722020-10-11T14:38:57.482ZFood&NutritionEuropeBelgiumYES2020 Project PromotionsNOhttps://video.igem.org/w/tCY3BdwqsPXEKWfdtGNzHjhttps://video.igem.org/lazy-static/thumbnails/c5a5fa8c-8448-4fc1-9a84-865dad82ec24.jpgJudging Expectations (2020)Judging Expectations (2020)https://static.igem.org/peertube/streaming-playlists/hls/dfd00ef7-c3c2-4164-b881-3bbde1671290/5f31e922-e1a1-4c0d-8e01-26c617cd7425-master.m3u8https://video.igem.org/videos/embed/tCY3BdwqsPXEKWfdtGNzHj43502952020-10-19T18:39:49.123ZYESJudging CommitteeNOhttps://video.igem.org/w/7eyQzkQfPcmexsoNARoNr9https://video.igem.org/lazy-static/thumbnails/23410d08-2f8f-4bc1-80e3-736e023960e5.jpgIntroduction to Judging (2020)Introduction to Judging (2020)https://static.igem.org/peertube/streaming-playlists/hls/327bbce0-413e-4e9c-9a8e-c160447fcb6a/6c8305d8-7f20-42b9-8a8a-87bd5a1f5235-master.m3u8https://video.igem.org/videos/embed/7eyQzkQfPcmexsoNARoNr953505182020-10-20T12:48:41.682ZsynbioYESJudging CommitteeNOhttps://video.igem.org/w/drtQedrfjdZdFmnViKA8dKhttps://video.igem.org/lazy-static/thumbnails/3c91173f-44da-4c83-93d4-9415e798f806.jpgHeidelberg: Interview mit Theresia Bauer (2020) [German]### English below! #### The video contains English subtitles! WIr sind das iGEM Team Heidelberg 2020. Wir nehmen an dem iGEM (international Genetically Engineered Machine) Wettbewerb teil. Wir freuen uns unsere Interviewreihe mit Wissenschaftlerinnen und WIssenschaftlern sowie Experten zu präsentieren. In diesem Teil unserer Serie, präsentieren wir unser Interview mit Theresia Bauer, Wahlkreisabgeordnete im Landtag Baden-Württemberg für den Wahlkreis Heidelberg, sowie Ministerin für Wissenschaft, Forschung und Kunst. ### English Version ### The video contains English subtitles! We are the iGEM Team Heidelberg 2020. We participate in the international Genetically Engineered Machine (iGEM) competition. We are glad to present to you our series of interviews with Scientists and further Experts. In this part of our series, we present our interview with Theresia Bauer, representative of the electoral district Heidelberg in the state parliament of Baden-Württemberg and minister for science, research and art. ### Unterlagen and Links/ Ressources and Web-Links ### Theresia Bauer in den Sozialen Medien/ Theresia Bauer in Social Media: https://twitter.com/TheresiaBauer, https://www.facebook.com/MinisterinTheresiaBauer/ (In German only.) Ministerium für Wissenschaft, Forschung und Kultur Baden-Württemberg/ Ministry for Science, Research and Art Baden-Württemberg: https://mwk.baden-wuerttemberg.de/de/startseite/ (In German only.) Veröffentlichung zur "Heidelberger Kinderstudie"/ Puplication of the "Heidelberger Children Study": https://www.biorxiv.org/content/10.1101/2020.06.15.152587v1.full.pdf+html (In English only.) Methodenbericht zur "Heidelberger KInderstudie"/ Method report concerning the "Heidelberger Kinderstudie": https://www.klinikum.uni-heidelberg.de/fileadmin/pressestelle/Kinderstudie/Prevalence_of_COVID-19_in_BaWu__.pdf (In English only.) Pressemitteilung des Universitätsklinikums Heidelberg zur "Heidelberger Kinderstudie"/ Pre...https://static.igem.org/peertube/streaming-playlists/hls/64bc68f2-7c10-46b0-8b58-018f4601e33f/f8e7db95-d6f5-4581-a166-b718a01f85cd-master.m3u8https://video.igem.org/videos/embed/drtQedrfjdZdFmnViKA8dK1068062020-10-20T13:40:12.833Zbauerwissenschaftsciencecommunicationbaden-württembergYESiGEM 2020 TeamsNOhttps://video.igem.org/w/gc7ddYpafLUc5q98JSfGW8https://video.igem.org/lazy-static/thumbnails/d782292f-765b-48ae-b80a-7fa55dc15b95.jpgHeidelberg: Interview with Dr. Dorothea Kaufmann (2020) [English]We are the iGEM Team Heidelberg 2020. We participate at the international Genetically Engineered Machine (iGEM) competition. We are glad to present you our series of interviews with Scientists and further Experts. In this part of our series we present our interview with Dr. Dorothea Kaufmann. She is a science communicator, local politician and study coordinator at the Institute of Pharmacy and Molecular Biotechnology (IPMB) at the University of Heidelberg. Wiki: https://2020.igem.org/Team:Heidelberg Interviewer: Lucas Arnoldt, Jannik Bergerhttps://static.igem.org/peertube/streaming-playlists/hls/7b0616c0-fc8a-4240-bdba-2dff677d2d33/c49eb05e-4549-4d16-af01-5e0f15c53426-master.m3u8https://video.igem.org/videos/embed/gc7ddYpafLUc5q98JSfGW811990202020-10-20T17:47:23.660ZkaufmannipmbsciencecommunicationYESiGEM 2020 TeamsNOhttps://video.igem.org/w/fwxUm7MD3xG7yQZiHtFcZShttps://video.igem.org/lazy-static/thumbnails/8b219ef1-6973-4fe9-905c-621ed7bfe01b.jpgHeidelberg: Interview with Dr. Kerstin Göpfrich (2020) [English]We are the iGEM Team Heidelberg 2020. We participate at the international Genetically Engineered Machine (iGEM) competition. We are glad to present you our series of interviews with Scientists and further Experts. In this part of our series we present our interview with Dr. Kerstin Göpfrich. She is a a research group leader in the field of "Biophysical Engineering of Life" at the Max Planck Institute for Medical Research. More information can be found on the webpage of the Göpfrich Group: https://goepfrichgroup.de/ Wiki: https://2020.igem.org/Team:Heidelberg Interviewer: Lucas Arnoldt, Angela Maidhofhttps://static.igem.org/peertube/streaming-playlists/hls/75a3ea3b-b630-4ab8-bbbc-cf1f193e89d0/da4fb8b9-06fb-49fa-be95-05e8e72e2aa7-master.m3u8https://video.igem.org/videos/embed/fwxUm7MD3xG7yQZiHtFcZS16870152020-10-20T17:51:21.641ZsynbioorigamigoepfrichsciencecommunicationYESiGEM 2020 TeamsNOhttps://video.igem.org/w/dwKrm5XhbaU4A9oJDPnfbuhttps://video.igem.org/lazy-static/thumbnails/41ec7f59-c9ad-4334-bf76-5e4e3bb47e61.jpgHeidelberg: Interview with Prof. Dr. Chase Beisel (2020) [English]We are the iGEM Team Heidelberg 2020. We participate in the international Genetically Engineered Machine (iGEM) competition. We are glad to present to you our series of interviews with Scientists and further Experts. In this part of our series, we present our interview with Prof. Dr. Chase Beisel. He is the head of the „RNA Synthetic Biology“ research group at the Helmholtz Center for Infection Research in Würzburg. He is a chemical engineer and biotechnologist and works on understanding the diversity of CRISPR-Cas systems in order to be able to use them against genetic diseases or multi-resistant pathogens. More information can be found on the webpage of the Beisel Group: https://www.helmholtz-hiri.de/en/research/organisation/teams/team/rna-synthetic-biology/ Wiki: https://2020.igem.org/Team:Heidelberg Interviewer: Jannik Berger, Julia Köberlehttps://static.igem.org/peertube/streaming-playlists/hls/6578befb-85a8-411d-b85f-5806e8b04b30/0093c740-fec8-457c-993c-fb80e7d03ad0-master.m3u8https://video.igem.org/videos/embed/dwKrm5XhbaU4A9oJDPnfbu17710302020-10-20T18:00:32.867ZbiologybeiselhelmholtzrnasyntheticYESiGEM 2020 TeamsNOhttps://video.igem.org/w/kmhAUv7GVgtZYRVB6wx6Xthttps://video.igem.org/lazy-static/thumbnails/14a26092-7907-40c9-98d2-46acb33a4775.jpgHeidelberg: Interview with Dr. Lorenz Adlung (2020) [English]We are the iGEM Team Heidelberg 2020. We participate in the international Genetically Engineered Machine (iGEM) competition. We are glad to present to you our series of interviews with Scientists and further Experts. In this part of our series, we present our interview with Dr. Lorenz Adlung. He is a Visiting Scientist at the Weizmann Institute for Science in Israel and works in the field of Systems Biology. He also is a Science Communicaton enthusiast and has participated in over a hundred Science Slams. More information can be found on the the Youtube Channel, the Webpage or Social Media of Lorenz: Youtube Channel: https://www.youtube.com/channel/UCvDccL92MhTOHxO9qs8_kyw Webpage: https://www.lorenzadlung.com/ Instagram: https://www.instagram.com/lorenzadlung/ Twitter: https://twitter.com/LorenzAdlung Wiki: https://2020.igem.org/Team:Heidelberg Interviewer: Lucas Arnoldt, Angela Maidhofhttps://static.igem.org/peertube/streaming-playlists/hls/9cb2bdbd-643d-4df2-8f1d-0556c2e1c15d/6094ef5b-ae33-4712-bfa2-80b1928fb57c-master.m3u8https://video.igem.org/videos/embed/kmhAUv7GVgtZYRVB6wx6Xt4155012020-10-20T18:11:32.622ZslamscienceadlungweizmannYESiGEM 2020 TeamsNOhttps://video.igem.org/w/3FBkzj1vJsG4KN74x5s9Nghttps://video.igem.org/lazy-static/thumbnails/38544e5f-cc09-42ee-9c36-15014ddb7479.jpgHeidelberg: Interview with Dr. Katharina Höfer (2020) [English]We are the iGEM Team Heidelberg 2020. We participate in the international Genetically Engineered Machine (iGEM) competition. We are glad to present to you our series of interviews with Scientists and further Experts. In this part of our series, we present our interview with Dr. Katharina Höfer. Katharina is heading the group "Bacterial Epitranscriptomics" at the Max-Planck Institute for terrestrial microbiology in Marburg. Website: https://www.mpi-marburg.mpg.de/858365/Katharina-Hoefer Twitter: https://twitter.com/HoeferLab Wiki: https://2020.igem.org/Team:Heidelberg Interviewer: Lucas Arnoldt, Elizaveta Chernovahttps://static.igem.org/peertube/streaming-playlists/hls/15ba0fd5-758d-45d3-be30-94cb4f8a380b/d4806d14-1b49-45d2-ab23-89044907b42e-master.m3u8https://video.igem.org/videos/embed/3FBkzj1vJsG4KN74x5s9Ng28160352020-10-20T18:30:57.092Zhoefernadrnamax-planckYESiGEM 2020 TeamsNOhttps://video.igem.org/w/inqi4Zb6yB1BN3oqPE5Fmkhttps://video.igem.org/lazy-static/thumbnails/0bbbb138-fc8f-444f-bbce-242d9bbb4d69.jpgHeidelberg: The Legend of Cellda: A link between proteins (2020) [English]We are the iGEM Team Heidelberg 2020. We participate in the international Genetically Engineered Machine (iGEM) competition. We are glad to present to you our project introduction video: "The Legend of Cellda: A link between proteins. We were awarded with the first prize in the GASB (German Association for Synthetic Biology) Competition at the German iGEM Meetup. Video Information: Members of the Team (In the order they appear.): Elizaveta Chernova, Mario Wisbar, Lucas Arnoldt, Angela Maidhof Voice-Over: Charlotte Westhoven Script: Fabian Bradic & Wangjun Hu & Lucas Arnoldt Camera: Lucas Arnoldt Design: Fabian Bradic Animations: Wangjun Hu Director: Fabian Bradic Background Music: ' Video Game Music - "Fix The Gear" ' by Oscar Owl - Composer (https://www.youtube.com/channel/UCAXR2RYFWwUAFmX4NPgEZZg) More information concering our project can be found on our webpage: igem-heidelberg.com More information concering GASB can be found on their webpage: https://www.synthetischebiologie.org/ Wiki: https://2020.igem.org/Team:Heidelberg Credits: Members of the Team (In order they appear): Mario Wisbar, Lucas Arnoldt, Jannik Berger, Julia Langer Voice Over: Charlotte Westhoven (Not a team member) Script: Fabian Bradic, Wangjun Hu, Lucas Arnoldt Camera: Fabian Bradic and Lucas Arnoldt Video Editing: Fabian Bradic and Wangjun Hu Design: Fabian Bradic Animations: Wangjun Hu Director: Fabian Bradic Background Music: ‘Video Game Music - ”Fix The Gear”’ by Oscar Owlhttps://static.igem.org/peertube/streaming-playlists/hls/8ca8f2c2-46c7-4536-82c2-cb54d8b5bd77/ed759afa-8e0e-4fe5-9436-64e800d2e7f3-master.m3u8https://video.igem.org/videos/embed/inqi4Zb6yB1BN3oqPE5Fmk2810262020-10-20T18:45:46.144ZRNAHeidelbergproteincelldaYESiGEM 2020 TeamsNOhttps://video.igem.org/w/tw7NPQR3CL7RJMWqchfo23https://video.igem.org/lazy-static/thumbnails/603c1d37-f7c7-4aaa-bada-50a40ce639ed.jpgHeidelberg: Interview with Dr. Anja Störiko (2020) [English]We are the iGEM Team Heidelberg 2020. We participate in the international Genetically Engineered Machine (iGEM) competition. We are glad to present you our series of interviews with scientists and further experts. In this part of our series we present you our interview with Dr. Anja Störiko. She earned her phD in microbiology and now works as science journalist and writes among many others for the magazine BioSpektrum. She is also part of VAAM (= Vereinigung für Allgemeine und Angewandte Mikrobiologie - association for general and applied microbiology): https://vaam.de BioSpektrum: https://www.biospektrum.de More information on Dr. Anja Störiko and her work can be found on her Website: http://störiko.de Wiki: https://2020.igem.org/Team:Heidelberg Interviewer: Jannik Berger, Angela Maidhofhttps://static.igem.org/peertube/streaming-playlists/hls/dedb4088-821a-4815-9b5a-892c21de6064/bbe8a940-92e0-4859-9a01-1429ff0b2444-master.m3u8https://video.igem.org/videos/embed/tw7NPQR3CL7RJMWqchfo231395042020-10-20T18:47:22.793ZbiospektrumcommunicationjournalismwritingstoerikoYESiGEM 2020 TeamsNOhttps://video.igem.org/w/fuUbgagEbxnqKsNUe9juvAhttps://video.igem.org/lazy-static/thumbnails/86a4a829-f79c-4a76-a071-2e3b65208afe.jpgHeidelberg: iGEM Science Slam (2020) [English]Our slammers will present their own research as part of the iGEM (international Genetically Engineered Machine) competition, a competition in synthetic biology. - If you are interested in hearing more about how to model RNA-Protein interactions within a neural network or what new biosensors could possibly achieve this is your very own slam. We are looking forward to welcoming the iGEM teams of Imperial College London, University of Manchester, University of Lausanne, and Ashesi University in Ghana, among others. Wiki: https://2020.igem.org/Team:Heidelberg Credits (Team Heidelberg): Moderation: Angela Maidhof Presenter: Mario Wisbar Technology: Lucas Arnoldt, Fabian Bradichttps://static.igem.org/peertube/streaming-playlists/hls/7568ec06-30ce-4b43-96e5-3d3b50104714/2f3709c5-0518-4d58-8218-0a59def83c32-master.m3u8https://video.igem.org/videos/embed/fuUbgagEbxnqKsNUe9juvA42130172020-10-20T18:49:04.265ZscienceslamcommunicationYESiGEM 2020 TeamsNOhttps://video.igem.org/w/njGsKpfhmnqja4qZPzYSoDhttps://video.igem.org/lazy-static/thumbnails/380d2110-b324-499b-8989-e0ab6220ecbc.jpg2020 Poster Walk-Through with iGEM Headquartershttps://2020.igem.org/Competition/Deliverables/Posterhttps://static.igem.org/peertube/streaming-playlists/hls/acac3c1c-4423-4022-baf3-20fabce73b99/fe5861db-9831-479e-a624-6f314d60cbeb-master.m3u8https://video.igem.org/videos/embed/njGsKpfhmnqja4qZPzYSoD199009552020-10-22T09:33:54.532ZwebinarheadquartersYESiGEM FoundationNOhttps://video.igem.org/w/h2LT8CDbBFdj3SuJ8V9aAKhttps://video.igem.org/lazy-static/thumbnails/a828e240-5dcc-4a96-b64f-149a3e663a8f.jpgGrenoble_Alpes: Midi Minatec (Science Fair 'Fête de la Science') Presentation (2020) [French]Replay of the "Midi Minatec" Presentation that occurred in the context of the Science Fair 'Fête de la Science'.https://static.igem.org/peertube/streaming-playlists/hls/81d19f20-3c77-4351-aa19-906988a0a593/ff1f23b9-a5b0-4bcd-bf8b-e07f3a5a43c4-master.m3u8https://video.igem.org/videos/embed/h2LT8CDbBFdj3SuJ8V9aAK25900132020-10-22T15:45:09.663ZPyoBustersScience FaireYESiGEM 2020 TeamsNOhttps://video.igem.org/w/uDA2UAQAoLNFvvyiprgFNBhttps://video.igem.org/lazy-static/thumbnails/33a2ae56-4c45-4838-90ef-833c8e762c54.jpgGrenoble_Alpes: Meet the French-speaking Teams from France and Switzerland (2020) [French]Video of the french-speaking Teams of France and Suisse (Lausanne). This video project was originally proposed by our Grenoble Alpes Team, and conducted with the collaboration of the many teams from France and the team of Lausanne. Each team had the opportunity of doing something different, thus, every video is unique!https://static.igem.org/peertube/streaming-playlists/hls/e7ff601f-2e6a-4f23-9bf0-c8fe01558093/1fd02fbe-3e9c-4578-b5f1-abe04a183a50-master.m3u8https://video.igem.org/videos/embed/uDA2UAQAoLNFvvyiprgFNB6950272020-10-24T13:10:35.396ZYESiGEM 2020 TeamsNOhttps://video.igem.org/w/uTY2ZKQ41fvBxzKEft4Gcmhttps://video.igem.org/lazy-static/thumbnails/8213cc97-26f9-444f-b507-a8b697bc1f4c.jpgBOKU-Vienna: Collaboration with MSP Maastricht (2020) [English]We are very happy that we were able to produce a video in the course of our collaboration with the iGEM team Maastricht. In this video we explained our project and why we think it is important. We had a great time working on the concept and realizing it. We hope this video helps to get more people interested in synthetic biology and science! https://static.igem.org/peertube/streaming-playlists/hls/ea0158e0-e98a-4c0f-a447-3d847f7b9a1a/ebeaac73-7076-46ad-9e21-0a9c1e5b2006-master.m3u8https://video.igem.org/videos/embed/uTY2ZKQ41fvBxzKEft4Gcm4450152020-10-25T15:24:55.420ZcollaborationYESiGEM 2020 TeamsNOhttps://video.igem.org/w/xfKheDZfmzKBmrSWXaBg22https://video.igem.org/lazy-static/thumbnails/207d0dd9-85de-4a95-89f5-8623dc9791d4.jpgGrenoble_Alpes: PyoBusters (2020) - Proof Of Concept Video, Plate Movements [English]Video for the Proof of Concept of our Hardware.https://static.igem.org/peertube/streaming-playlists/hls/fd1a6229-0b64-4b1f-b4ca-216c14a9e73f/db9564a8-cfbf-4b52-9db6-30a31d5c3cdb-master.m3u8https://video.igem.org/videos/embed/xfKheDZfmzKBmrSWXaBg22870402020-10-25T17:50:56.397ZPyoBustersSoftwareHardwareProof Of ConceptYESiGEM 2020 TeamsNOhttps://video.igem.org/w/kvkVGoNjE3kjs6HZXkBv11https://video.igem.org/lazy-static/thumbnails/f37272a8-ff7a-44b5-9eda-628d385c95b5.jpgGrenoble_Alpes: PyoBusters (2020) - Proof Of Concept Video, Pythie Interface [English]Video for the Proof of Concept of our Software. https://static.igem.org/peertube/streaming-playlists/hls/9df67bcb-f1b2-4793-8b72-5cb2d6a549dc/a1a25687-cb57-4e50-88b9-db968b2ff896-master.m3u8https://video.igem.org/videos/embed/kvkVGoNjE3kjs6HZXkBv111810112020-10-25T17:53:25.474ZPyoBustersProof Of ConceptHardwareSoftwareYESiGEM 2020 TeamsNOhttps://video.igem.org/w/gneGYGJdGduiQ78nwcyzNwhttps://video.igem.org/lazy-static/thumbnails/7b63399e-8c82-458d-b9a6-2144d9d77bf1.jpgChanges to Judging (2020)Changes to Judging (2020)https://static.igem.org/peertube/streaming-playlists/hls/7c702560-ba9e-4cf1-a0e1-eb3263e1305e/5e21ca17-9dd3-4b20-a64b-71f2cfb2a6d4-master.m3u8https://video.igem.org/videos/embed/gneGYGJdGduiQ78nwcyzNw21301912020-10-26T10:30:45.071ZYESJudging CommitteeNOhttps://video.igem.org/w/gfNPgciJDfLHotAKsxH8Qxhttps://video.igem.org/lazy-static/thumbnails/b0ab1d0f-126a-4ddf-a7b8-73ba5a0bdbb0.jpgGrenoble_Alpes: PyoBusters (2020) - Proof Of Concept Video, HermAs Protocol [English]Proof of Concept of the HermAs protocolhttps://static.igem.org/peertube/streaming-playlists/hls/7b8a57e6-ab27-40eb-8146-aad7fe548b53/8d17c77b-2ef7-4b0a-9c14-98276abdd934-master.m3u8https://video.igem.org/videos/embed/gfNPgciJDfLHotAKsxH8Qx1040212020-10-26T10:40:35.318ZPyoBustersHardwareProof Of ConceptYESiGEM 2020 TeamsNOhttps://video.igem.org/w/cw72Bj6rFBTVn8NNwvDX5Ahttps://video.igem.org/lazy-static/thumbnails/8c275952-88e4-4fd2-bb61-b1f2ad15fb13.jpgKU_ISTANBUL: The Living Laser: Transforming Cells into Lasers (2020) - Team Presentation [English]**Title:** The Living Laser: Transforming Cells into Lasers **Abstract:** Systems approach in many domains of biological sciences requires large amounts of imaging data across different length and time scales. To step up into high throughput screening methods required for diagnostics and basic research purposes, multiplexed labeling, uniquely tagging, and tracking individual cells, and increasing the penetration depth of light into tissues are demanded. In order to meet these necessities, here we are demonstrating the living laser which is a morphosis of cells into lasers by building natural resonators on the surface of cells using novel gene circuits. We will be exploring the stability, feasibility, and practicality of these biological lasers in four main application domains: picking quality oocytes for IVF, tracking cancer cells over long periods of time, sensing internal and external changes of cells and creating a novel technique for characterization of cells and tissues. [Wiki](https://2020.igem.org/Team:KU_ISTANBUL) | [Project Promotion](https://video.igem.org/videos/watch/6e672799-1921-4296-a732-ab0b5813f3a6)https://static.igem.org/peertube/streaming-playlists/hls/5d488d97-0565-4cdb-a2fb-1971a028069e/ecddc302-7d37-44a3-b991-a73495d01b53-master.m3u8https://video.igem.org/videos/embed/cw72Bj6rFBTVn8NNwvDX5A11820592020-10-26T17:40:52.295ZNewApplicationTurkeyEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/bSroMwpXVmPi6kKP1KmcDrhttps://video.igem.org/lazy-static/thumbnails/026441f1-c0e8-4557-ab87-633494ae3095.jpgStuttgart: Podium discussion team Kaiserslautern and team Stuttgart with Christian Kaiser (2020) ...To connect our research with public interest, we initiated a digital discussion in collaboration with the iGEM-team from the University of Kaiserslautern. With this discussion and the live stream on Twitch, we wanted to raise awareness of the benefits that synthetic biology could bring to wastewater treatment and the environment in general. We also want to strengthen the internal iGEM community by working together with other teams and making this important discussion accessible to everyone. To make our panel discussion beneficial for the audience, the team and our discussion partners, an expert in environmental science was invited. This event was moderated together with a member of the iGEM-team of the TU Kaiserslautern with the aim to present interesting topics and to guide the discussion. Due to Corona, the panel discussion had to be held online to prevent a new chain of infection. Christian Kaiser, an author of the initiative for a progressive turnaround in agricultural science and expert in the field of environmental science was so kind to discuss our topics with us. Sebastian Brockmann from the iGEM-team Stuttgart and Linda Müller from the iGEM-team Kaiserslautern talked to him about the topics “Influence of human-made water pollution on aquatic ecosystems” and “GMOs to save the environment”. In the first part of our discussion we talked about the environmental impact, agriculture and pharmaceuticals have on water pollution and what could be done better in the future. In the second part of our discussion we talked about advantages and disadvantages of GMOs. More precisely about golden rice, glyphosate resistant plants and counterarguments by Greenpeace and other reputable environment organizations. Thanks to Mr. Kaiser we learned a lot about the different perspectives and insights on the problem of water pollution and the legal situation of GMOs in Europe and especially in Germany. With this discussion we succeeded in raising public awareness of wa...https://static.igem.org/peertube/streaming-playlists/hls/58063957-c4bd-4ca6-bd9b-0a0cf6821017/1b0d681f-4e2d-4480-92f3-6cb418361543-master.m3u8https://video.igem.org/videos/embed/bSroMwpXVmPi6kKP1KmcDr36200172020-10-26T21:40:10.039ZlivecollaborationwaterdiscussionYESiGEM 2020 TeamsNOhttps://video.igem.org/w/cEJvppcurLt33vy5n4UNzQhttps://video.igem.org/lazy-static/thumbnails/a9ef3370-efce-4525-8b97-6771fbd99f14.jpgJACOXH_China: Earthworm Yakult (2020) - Team Presentation [English]**Title:** Earthworm Yakult **Abstract:** Soil has always been important to humans, providing a resource that can be used for shelter and food production. Prevention of contaminated soil is closely related to health problems in soil-plant-animal-human system. Here, we designed a 'walking' biological platform for the detection and remediation of mercury contaminated soil. Multifunctional engineering bacteria were cultured, with MerR-dependent hypersensitive switch, mercury monitor, and mercury stabilizer. Once mercury ions are found in the soil, multifunctional engineering bacteria scattered in the soil can be activated, releasing chromogenic protein and stabilizing mercury ions in the form of HgS with low toxicity. Moreover, considering engineering bacteria move slowly in the soil and is greatly affected by the environment, we choose earthworm as the walking carrier. The engineering bacteria will be reproduced in the earthworm body and move through soil followed with the earthworm to monitor and remedy mercury contaminated soil movably. [Wiki](https://2020.igem.org/Team:JACOXH_China) | [Project Promotion](https://video.igem.org/videos/watch/50879a75-db35-4296-80e0-118b52efa7b6)https://static.igem.org/peertube/streaming-playlists/hls/5e7cfbff-2a4a-4d1e-8a80-2c92bbf11b92/f541e047-ca87-4967-9615-371b7519a84d-master.m3u8https://video.igem.org/videos/embed/cEJvppcurLt33vy5n4UNzQ9870582020-10-27T04:57:51.328ZAsiaHighSchoolChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/3FkEkiwGkgwqtVDVBieF9Mhttps://video.igem.org/lazy-static/thumbnails/09d95fb9-3c0a-45bb-b122-127e3602283a.jpgMoscow-Russia: Vlcad syndrome (2020) [Russian]Members of the iGEM Moscow-Russia team organized a meeting with a woman whose daughter has vlcad syndrome. Vlcad syndrome is one more autosomal-recessive disease which is almost incurable. After our meeting we’ve come up with the idea to analyze mutations associated with this pathology in the future. Our wiki: https://2020.igem.org/Team:Moscow-Russiahttps://static.igem.org/peertube/streaming-playlists/hls/15b0669b-e816-4933-b8d7-8636fa8a2c31/4725d961-4e16-4de8-902d-00731e7d31c3-master.m3u8https://video.igem.org/videos/embed/3FkEkiwGkgwqtVDVBieF9M19770302020-10-27T08:16:03.017ZYESiGEM 2020 TeamsNOhttps://video.igem.org/w/wyT514hNZm8FA32Wp9mjLfhttps://video.igem.org/lazy-static/thumbnails/564cf1be-6a33-477c-9093-c291fd6afd19.jpgUNILausanne: WomenInSTEM (2020) [English]Awareness raising video on gender inequality in the scientific field of the iGEM UNILausanne team. This video was shot in the form of an interview to highlight the differences in experiences between men and women scientists. Link to the iGEM UNILausanne wiki : https://2020.igem.org/Team:UNILausanne Crédits : Idea : Daniel Rodriguez, Johanna Wahn, Elise Eray, Sara Ezzat Image : Daniel Rodriguez, Johanna Wahn Sound : Daniel Rodriguez Montage : Daniel Rodriguezhttps://static.igem.org/peertube/streaming-playlists/hls/f7896ecd-2e09-4e1a-a2b2-6c4402de618e/e049b1ca-1e3c-4198-92a5-c7e402c483bf-master.m3u8https://video.igem.org/videos/embed/wyT514hNZm8FA32Wp9mjLf10090832020-10-27T08:36:16.349ZScienceEducationGenderInequalitiesYESiGEM 2020 TeamsNOhttps://video.igem.org/w/gPutdQvdNa7CTjVrvm5wzmhttps://video.igem.org/lazy-static/thumbnails/36e158d7-d8d2-4650-8e80-2adaec121c2c.jpgUCopenhagen: USER Cloning (2020) [English]UCopenhagen: USER Cloning (2020) [English]https://static.igem.org/peertube/streaming-playlists/hls/801a94f9-ffbe-4ff2-8d01-71b935488b86/c8b8eb8d-952a-4339-b248-7c54d07feb56-master.m3u8https://video.igem.org/videos/embed/gPutdQvdNa7CTjVrvm5wzm14301802020-10-27T20:14:30.324ZYESiGEM 2020 TeamsNOhttps://video.igem.org/w/9EFtwMdc5P8riizY61Vs6mhttps://video.igem.org/lazy-static/thumbnails/094705a9-7a88-407f-a859-2e298a91b756.jpgNCKU_Tainan: Into the Darkness (2020) [English]A vlog about our special event called Into the Darknesshttps://static.igem.org/peertube/streaming-playlists/hls/462fb31d-6cf4-4b6a-882a-7d94b1899cc6/59f0e5e4-08bf-4083-add1-ae02db9784b4-master.m3u8https://video.igem.org/videos/embed/9EFtwMdc5P8riizY61Vs6m290232020-10-27T20:44:43.953ZYESiGEM 2020 TeamsNOhttps://video.igem.org/w/fHAoLf4JAzT5jUmA7ev4XGhttps://video.igem.org/lazy-static/thumbnails/e8984b57-f824-4451-96a6-928f9b6ce8c8.jpgNCKU_Tainan: DIY tutorial (2020) [English]A tutorial video to make a DIY perimeter for measure peripheral vision.https://static.igem.org/peertube/streaming-playlists/hls/772ea183-d243-4616-98a8-0b6d36321ca2/1b1a29f0-dc54-4007-aff5-735b139e9b50-master.m3u8https://video.igem.org/videos/embed/fHAoLf4JAzT5jUmA7ev4XG1930192020-10-27T20:55:37.019ZYESiGEM 2020 TeamsNOhttps://video.igem.org/w/piGDVWhQu1ksw9N6cBo23Hhttps://video.igem.org/lazy-static/thumbnails/1c38c45b-542c-4513-a2a2-2c911158350f.jpgNCKU_Tainan: High School Education (2020) [English]A vlog where we visited Senior High School students.https://static.igem.org/peertube/streaming-playlists/hls/bcbae31d-4676-493f-b976-be5388e15a81/7dfb3088-89cc-4c16-a880-ba9e055893f4-master.m3u8https://video.igem.org/videos/embed/piGDVWhQu1ksw9N6cBo23H1600172020-10-27T21:00:46.507ZYESiGEM 2020 TeamsNOhttps://video.igem.org/w/bGtRDuM3RpTAzyczCv2V6ihttps://video.igem.org/lazy-static/thumbnails/bb5f17ba-3819-46ec-bf03-e10900528f2a.jpgNCKU_Tainan: Eye Screen Demonstration video (2020) [English]*Abstract:* This is the demonstration video of Eye Screen. EyeScreen is an affordable, portable, and user-friendly ultrasonic tonometer. It measures IOP with air-coupled transducers that transmit ultrasonic waves into the eye and analyze the reflected signal. The result is displayed on the LCD and uploaded onto Eye Cloud, an application that can record the user’s IOP value and inform one’s risk of glaucoma in a real-time manner. *Wiki Link:* https://2020.igem.org/Team:NCKU_Tainan *Credits:* Directed & Produced & Edited by iGEM NCKU Tainan Music: www.bensound.com *Social Media:* Facebook: https://www.facebook.com/igem.ncku Instagram: https://www.instagram.com/igemncku/ I've gotta PhD: https://www.facebook.com/IvegottaPhD Spotify Podcasts: https://open.spotify.com/show/7cufNFIEmIpokVZAEE1gZ7 Apple Podcasts: https://podcasts.apple.com/tw/podcast/the-something-podcast/id1530408731 https://static.igem.org/peertube/streaming-playlists/hls/56a24de3-92bc-47d3-8f19-8dc8e224c4df/70b4d421-cbb0-4853-9b8d-8aa98a3a63bc-master.m3u8https://video.igem.org/videos/embed/bGtRDuM3RpTAzyczCv2V6i1520262020-10-27T21:40:13.925Z#NCKU_Tainan#demo#demonstration#EyeScreen#deviceYESiGEM 2020 TeamsNOhttps://video.igem.org/w/aSjFywyYp7PWF7roTugDSBhttps://video.igem.org/lazy-static/thumbnails/d09e5482-bb91-4688-a11f-30dd664de42b.jpgBUCT-China: Biodegradation of plastics and further utilization of the degradatio... (2020) - Team...**Title:** Biodegradation of plastics and further utilization of the degradation products for biopolymer synthesis **Abstract:** Plastic is a remarkable substance that has multiple advantages for many applications. But it also brought huge disasters to our ecological environment. Over time, that plastic material does not biodegrade, but breaks down into tiny particles known as microplastics, and enter the food chain. Last year, we observed a strain, which can degrade PE and PS. This year, based on last year's study, we made some improvements and conducted further exploration work. Our project have two parts. The first part is to degrade PE into alkanesIn. We construct an artificial metabolic pathway and use surface display to express Laccase on the surface of spores, making the reaction more efficient and intuitive. The second part is to use those metabolites to synthesize environmentally-friendly material PHFA (poly hydroxyl fatty acid). Based on genome sequencing and synthetic biology, we constructed another engineered bacteria to utilize plastics to synthetic value-added products such as PHFA.¬† [Wiki](https://2020.igem.org/Team:BUCT-China) | [Project Promotion](https://video.igem.org/videos/watch/94a9c99c-a1a7-4638-8a8f-f419529d54fb)https://static.igem.org/peertube/streaming-playlists/hls/4fe8f31e-65da-4a6e-bba6-62dd48b832a3/b4f4d4bd-9837-4098-9216-5dd6695fea49-master.m3u8https://video.igem.org/videos/embed/aSjFywyYp7PWF7roTugDSB106301752020-10-28T10:55:51.027ZEnvironmentChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/wg317KVtE6vGVrTHizsT85https://video.igem.org/lazy-static/thumbnails/5621e483-5cf2-4cc5-85d4-ccde4b53e097.jpgICS_BKK: Project Trojan Horse (2020) - Team Presentation [English]**Title:** Project Trojan Horse **Abstract:** Our project aims to treat tonsillitis utilizing phage therapy as an alternative to antibiotics, whose drawback is resistance. Our ultimate goal is to create a mouthwash containing engineered Lactococcus lactis strains capable of releasing a phage to deactivate Streptococcus pyogenes. For computational lab, we modified over 300 strains of Phage P2, natural phage of Lactococcus lactis, to bind to S. pyogenes and achieved the highest binding affinity of -6.38 kcal/mol, compared with the original affinity of -4.50 kcal/mol between P2 and S. pyogenese. For the wet lab approach, we conducted biopanning, a screening method to identify peptides with high affinity to a given target, on Staphylococcus aureus, a common virulent gram-positive bacteria in respiratory tracts. We successfully binded one strand of Phage M13 to S. aureus. The successful binding results in both approaches lay a foundation for next year's modification of bacteriophage-containing bacteria in mouthwash delivery. [Wiki](https://2020.igem.org/Team:ICS_BKK) | [Project Promotion](https://video.igem.org/videos/watch/41378b2f-104c-4113-94c5-ef3eab10bbe6)https://static.igem.org/peertube/streaming-playlists/hls/f50b8cd5-68e3-4768-81ba-0f7385dc7146/e62ac812-28cb-44c0-bd27-f00b11b5c559-master.m3u8https://video.igem.org/videos/embed/wg317KVtE6vGVrTHizsT859080502020-10-28T17:11:44.676ZThailandHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/3G2nmNWiyAB4WGi8p8pgXqhttps://video.igem.org/lazy-static/thumbnails/4e435cdf-f325-4f4b-8fdd-8871b6424b0b.jpgUTTyler: Diagnosis of viral infections using photonics and biomolecular techniques (2020) - Team ...**Title:** Diagnosis of viral infections using photonics and biomolecular techniques **Abstract:** Viral diseases are common to have a long incubation period with mild symptoms while carriers can still spread these pathogens via airborne transmission. These properties lead to a critical challenge in preventing the spread of these diseases. Potentially, routine diagnosis of the entire population can identify all virus carriers to block transmission. However, advanced equipment and skills are required for most diagnostic methods, making it difficult to frequently test all individuals in our society. To address this problem, we propose to develop a diagnostic platform that allows users to perform testing at home on a daily basis. Our approach involves using cellular techniques to generate probes for recognizing viral genomes and using photonics technologies to monitor association between our probes and viral DNA. We anticipate that a test will only take a short period of time and it can be easily performed by all users. [Wiki](https://2020.igem.org/Team:UTTyler) | [Project Promotion](https://video.igem.org/videos/watch/9139be59-4ee5-4a02-ac23-2fbd199f1b1e)https://static.igem.org/peertube/streaming-playlists/hls/15c8df0f-f08c-487a-8784-59241bf5de52/7b9a81c0-fdac-43c1-aeb1-c73be047e842-master.m3u8https://video.igem.org/videos/embed/3G2nmNWiyAB4WGi8p8pgXq9190222020-10-28T19:52:11.043ZDiagnosticsNorthAmericaUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/1ckvtwZPmq1USCHhjQpry7https://video.igem.org/lazy-static/thumbnails/4ea680b8-c10f-46c2-9ae0-fcb9f6607de0.jpgToulouse_INSA-UPS: iGEMINI, a coculture for food supplements in space (2020) - Team Presentation ...**Title:** iGEMINI, a coculture for food supplements production in space **Abstract:** Space exploration drives us further away from Earth and will lead to year-long space travel. Some essential nutrients, such as vitamins, cannot be stored on the spacecraft since they rapidly lose nutritional value over time. iGEMINI aims to supplement astronauts' food with nutritional and tasty yeast supplement. We designed a quasi-autonomous coculture between the acetogen bacterium Clostridium ljungdahlii and the yeast Saccharomyces cerevisiae. This system uses minimal resources which are currently considered as waste on spacecraft. As a proof of concept, the yeast has been engineered to produce provitamin A, an essential vitamin for human health. Since astronauts' tastes are altered by physiological changes in their body, we give them the choice to choose their favorite flavors by using optogenetic systems. Our project builds new bridges between space research and microbiology, and multiple efforts have been done to promote space synthetic biology as a truly promising and exciting scientific field. [Wiki](https://2020.igem.org/Team:Toulouse_INSA-UPS) | [Project Promotion](https://video.igem.org/videos/watch/02a9ba65-6ec1-4be7-b3e7-07cc5a3ff566)https://static.igem.org/peertube/streaming-playlists/hls/0195342d-4c1d-4908-ae87-328fbcbbbc22/86b6127d-5f31-4876-be57-8f4cf687eb44-master.m3u8https://video.igem.org/videos/embed/1ckvtwZPmq1USCHhjQpry71200020162020-10-28T21:13:31.832ZFranceEuropeFood&NutritionYES2020 Team PresentationsNOhttps://video.igem.org/w/dp61FZ5GwJDss2cgcU8WQHhttps://video.igem.org/lazy-static/thumbnails/0ec8a889-a0d2-4646-b506-3c1627a47936.jpgIISER_Berhampur: FRaPPe (2020) - Team Presentation [English]**Title:** FRaPPe: A FRET based Ranker for Proteins and Peptides **Abstract:** FRaPPe by team iGEM IISER Berhampur, is a reporter system which aims to validate efficiency of therapeutics targeting protein-protein interactions (PPIs). This reporter, assembled with mammalian promoters, modulatory domains (Chemically Induced Dimerization modules), fluorescence tags (Fluorescence Resonance Energy Transfer modules) and the coding sequences of proteins of interest will be developed in E. coli and transfected into Human Embryonic Kidney cells. This tool will enable modulation of the extent of PPIs and their quantification via fluorescence readout, offering possibilities for a high-throughput screening system for drug efficiency in attenuating these interactions in vitro.The utility of FRaPPe will be demonstrated using interference peptides that will disrupt the Dengue Virus Non-Structural Protein and host STAT2 interaction thus modulating the host interferon signalling pathway. We propose FRaPPe as a one-stop solution for studying host-viral PPIs and also a tool to screen inhibitors of these interactions against several viral diseases. [Wiki](https://2020.igem.org/Team:IISER_Berhampur) | [Project Promotion](https://video.igem.org/videos/watch/c2dada58-dabc-495e-924c-9bd17de59eda)https://static.igem.org/peertube/streaming-playlists/hls/6466dbfc-0581-479e-8728-831762308319/1d6ea68c-0350-4355-b7c6-e1451a9b7871-master.m3u8https://video.igem.org/videos/embed/dp61FZ5GwJDss2cgcU8WQH118901142020-10-29T09:12:53.473ZAsiaFoundationalAdvanceIndiaYES2020 Team PresentationsNOhttps://video.igem.org/w/3hCXTxQmzRpJmEw8DmibEahttps://video.igem.org/lazy-static/thumbnails/ab22eaba-3241-43cc-93d8-a5b8e84a4d8f.jpgSHSBNU_China: Strangle locust plague at birth (2020) - Team Presentation [English]**Title:** Strangle locust plague at birth **Abstract:** Locust plague is a harmful disaster, because gigantic locust swarms can eat crops and cause food crisis. However, the existing prevention measures are expensive and not environmentally friendly. Locust plague is mainly caused by the colonizing locusts, while the scattered locusts need to be initiated by serotonin and guaiacol to form colonized locusts. Therefore, we proposed a design to allow E. coli to express four enzymes to degrade serotonin and guaiacol in the intestines of the locusts. To enhance the degradation efficiency, we introduced a self-lysis system in E. coli to allow the enzymes release to the intestinal lumen of locust, which helps ultimately disturb the swarming behavior of locust and avoid the occurrence of locust plagues. For biosafety, we have also introduced a heat-induced suicide switch, which allows E. coli to commit suicide in response to the summer heat when the plagues are reduced. [Wiki](https://2020.igem.org/Team:SHSBNU_China) | [Project Promotion](https://video.igem.org/videos/watch/3fd188af-8391-4f28-a205-df04458a4af8)https://static.igem.org/peertube/streaming-playlists/hls/1284f50f-7cc2-45c4-bd32-f378c88b12d5/fb7c8f19-c7df-42cc-ae07-de3ca59dbaea-master.m3u8https://video.igem.org/videos/embed/3hCXTxQmzRpJmEw8DmibEa10960932020-10-29T12:18:31.638ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/7qfBeM15pPmeK7qtKrsvhwhttps://video.igem.org/lazy-static/thumbnails/4fb2149c-9ef5-46af-be0a-ab4410446df7.jpgHong_Kong_CityU: Plastilicious Coli (2020) - Team Presentation [English]**Title:** Plastilicious Coli: a rational design approach for biodegradation of plastic wastes **Abstract:** The extensive use of plastics in recent decades has led to an increasing amount of plastic wastes which consist of non-biodegradable and non-incinerable plastics such as polyethylene terephthalate (PET) and polyurethane (PUR). These wastes are discarded into the environment causing serious environmental pollution problems. This has inspired our team to search for effective scientific options to help reduce plastic pollution. In this project, we have adopted an in-silico mutagenesis approach to design two PUR-degrading enzymes - papain and polyurethanase esterase A (PueA) - that could be used to enhance PET and PUR biodegradation. Ultimately, we are aiming to construct a multi plastic-degrading E. coli bug by combining the genes of the two mutant enzymes (papain and PueA) with the well-studied polyethylene terephthalate hydrolase (PETase) gene in a single biobrick. It is hoped that this technology will contribute to reducing plastic wastes and help better protect our environment. [Wiki](https://2020.igem.org/Team:Hong_Kong_CityU) | [Project Promotion](https://video.igem.org/videos/watch/ce573003-467b-4cd0-ad12-60691e37226a)https://static.igem.org/peertube/streaming-playlists/hls/33f9af45-c59d-4ad7-905e-779279a3de12/30f1fb42-15c6-4b7a-9e86-628d53a6f71f-master.m3u8https://video.igem.org/videos/embed/7qfBeM15pPmeK7qtKrsvhw10560352020-10-29T12:40:29.124ZAsiaEnvironmentHongKongYES2020 Team PresentationsNOhttps://video.igem.org/w/grvRWYCbBVjsLPisfj1o4ihttps://video.igem.org/lazy-static/thumbnails/b53c3760-085e-4313-9ac0-46720d9e71e2.jpgGDSYZX: Cultural Great Adventure to RiCE (2020) - Team Presentation [English]**Title:** Cultural Great Adventure to Rice **Abstract:** Chinese Traditional medicine such as honeysuckle has excellent efficacy in treating Novel Corona Virus, many patent medicine are now commonly used for treatment of COVID-19. One of the main active ingredient of honeysuckle is Chlorogenic acid (CGA), which synthesized under the key enzyme HQT. We tried to transfer HQT of honeysuckle into rice to increase the rice seeds'content of CGA. Thus We constructed GluD-1pro::HQT and 35Spro::HQT vector with rice seed specific promoter GluD-1 and 35S promoter respectively. We transferred this two vectors into the rice protoplast individually. We detected the expression of HQT gene by Western Blot and synthesis of CGA by high performance liquid chromatography (HPLC) in 35Spro::HQT vector transfected protoplasts as we expected. We provide a method that can increase the content of CGA in rice to improve human immunity. [Wiki](https://2020.igem.org/Team:GDSYZX) | [Project Promotion](https://video.igem.org/videos/watch/cd22577e-d0f0-434c-b14c-313d2e249349)https://static.igem.org/peertube/streaming-playlists/hls/7d0913a5-df8c-4942-bba3-c1943e151fb7/a80e54f3-942a-4610-90f5-d4cd46ee265f-master.m3u8https://video.igem.org/videos/embed/grvRWYCbBVjsLPisfj1o4i9450412020-10-29T13:24:44.853ZHighSchoolChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/1KRpGagjUadLwBv8EkNdtahttps://video.igem.org/lazy-static/thumbnails/b16eead4-63f0-4e8b-a14d-25fc2df0c099.jpgChalmers-Gothenburg: No Time to Waste (2020) - Team Presentation [English]**Title:** No Time to Waste **Abstract:** Generating 70 million tonnes of textile waste each year, the fashion industry oftentimes goes unmentioned in the climate debates. Yet, the great environmental problem posed by the fashion persists and is further aggravated by the inclusion of synthetic textile blends, which renders a large portion of garments un-recyclable. Our teams' attempt at tackling this problem focuses on the addition of the synthetic fibre elastane to garments, an addition that makes fibre separation a difficult process, and as such, poses a large problem for recycling. By including nine different enzymes to the bacteria E. Coli, our team attempted to create an enzymatic system capable of degrading the elastane fibre through biological means, effectively providing a biological solution to an environmental problem. A large part of our project has also been to communicate this large waste impact of the fashion industry, and to show that we really have No Time to Waste. [Wiki](https://2020.igem.org/Team:Chalmers-Gothenburg) | [Project Promotion](https://video.igem.org/videos/watch/eb3c0c71-1d88-4340-a225-ffebf894f876)https://static.igem.org/peertube/streaming-playlists/hls/061f6e61-6689-4204-8be8-740c699e3037/dbf478f8-5bb6-4bcc-8b33-079b5b076a5b-master.m3u8https://video.igem.org/videos/embed/1KRpGagjUadLwBv8EkNdta11810622020-10-29T16:37:25.152ZEuropeSwedenEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/tC4h9TndpZEEh4s2LBeGWChttps://video.igem.org/lazy-static/thumbnails/d097bf88-8367-4d06-8ecc-27f7efe378d8.jpgRDFZ-China: TEA-HEE (2020) - Team Presentation [English]**Title:** Tea-HEE **Abstract:** Depression is a common yet serious disease worldwide effecting more than 322 million people. It has been accepted that serotonin deficiency is the major cause of depression and medications are made to improve this situation. Yet patients often feel pressure and refuse to take antidepressants due to social stigmas. Our project, Tea-HEE, focused on a novel way to prevent this problem. We engineered E. coli Nissle 1917 (an FDA approved probiotic) to be placed in patients' intestine. It can be activated by PCA, a tea metabolite derived from tea intake, and to produce 5-HTP, the precursor of serotonin naturally present in intestines that has multiple advantages for serotonin synthesis. Therefore by ingesting tea, a common beverage, patients can get an ample supply of 5-HTP in their intestine and hence an ample supply of serotonin in their brain to fight depression toward a better quality of life without pressure. [Wiki](https://2020.igem.org/Team:RDFZ-China) | [Project Promotion](https://video.igem.org/videos/watch/f2b4e35f-6d87-4501-b2db-51df87ff3d47)https://static.igem.org/peertube/streaming-playlists/hls/dfaf8a3c-bc2b-4840-9539-27243a3560f8/a20bc721-73b3-425d-b8a1-9712b532317d-master.m3u8https://video.igem.org/videos/embed/tC4h9TndpZEEh4s2LBeGWC10960302020-10-29T15:34:07.835ZHighSchoolChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/2GT7PWcPYDMa2XuP5gnneqhttps://video.igem.org/lazy-static/thumbnails/c1d1d7ea-df34-49f7-8154-85c472dd81d5.jpgNWU-CHINA-A: Presentation NWU-CHINA-A (2020) - Team Presentation [English]**Title:** Avenger assemble **Abstract:** The rising risk of severe side-effects and potential resistance of antibiotics have limited their usage. Moreover, non-biodegradable medical product loaded antibiotic is one of global pollutions. To solve these problems, our team aimed to design a medical dressing based on novel human defensins (HBDs) and polyhydroxyalkanoate (PHA) from micro-organisms. HBDs, kinds of novel antimicrobial peptide (AMP) from human, which has excellent blood compatibility and effective anti-bacteria without drug resistance and immunogenicity. In order to combine HBDs on the surface of flexible PHA film in vitro, we built a fusion protein by using a natural PHA surface binding protein (PhaP). All parts of the completely biodegradable medical dressing, including HBDs, PHA and PhaP, are designed and produced in engineering bacteria. We hope that the combination of HBDs and PHA could boost the persistent anti-bacteria and histocompatibility of adhesive bandages. Besides, implementing the concept to medical field would be our future jobs. [Wiki](https://2020.igem.org/Team:NWU-CHINA-A) | [Project Promotion](https://video.igem.org/videos/watch/aedbd84e-8f56-4c4e-bcbc-fe3f1be15fdd)https://static.igem.org/peertube/streaming-playlists/hls/0dce6450-f684-4433-ace0-db8a1d1baf76/d5d10361-0400-4968-a2c9-bd2a4d1da261-master.m3u8https://video.igem.org/videos/embed/2GT7PWcPYDMa2XuP5gnneq11000322020-10-29T15:56:36.663ZChinaTherapeuticsAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/9dqEe6Cb274WYY6wQLjxLxhttps://video.igem.org/lazy-static/thumbnails/fe7f4bfe-9ff2-4354-91f6-33b5adf49f20.jpgNJU-China: ExosomeBomb siRNA (2020) - Team Presentation [English]**Title:** ExosomeBomb SiRNA **Abstract:** siRNAs offer an opportunity to specifically target mRNAs and modulate the expression of therapeutic targets which can facilitate cancer treatment. Here, we designed composable and programmable genetic circuits that used the liver as a tissue chassis to direct the self-assembly of exogenous siRNAs into secretory exosomes. The circuits include core parts which expressed siRNAs that not only inhibit the cancer cells, but also remove the disguise cancer use to evade the immune system; enhancing parts which facilitated the production of more anti-cancer exosomses, and guidance parts which directed the exosome to target cancer cells. Taken together, the genetic parts assembled into anti-tumor exosomes, secreted into circulation, delivered to cancer cells and eliminate them. The strategy provided a controllable, efficient and convenient cancer treatment which may even provide a personalized treatment strategy that can address a broad range of problems in biomedicine. [Wiki](https://2020.igem.org/Team:NJU-China) | [Project Promotion](https://video.igem.org/videos/watch/d19831bd-ae68-4ac1-9fed-276876ff4543)https://static.igem.org/peertube/streaming-playlists/hls/42853b30-84cd-41b2-bc8b-d4b254f64d03/e448bbc9-cdb4-40c0-beea-cf5d175032d2-master.m3u8https://video.igem.org/videos/embed/9dqEe6Cb274WYY6wQLjxLx11940292020-10-29T16:31:47.352ZChinaAsiaTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/1N6zNvSMgpPFfbGx4zVp2whttps://video.igem.org/lazy-static/thumbnails/ba559294-2c5d-4c59-853c-c743fca989c0.jpgStuttgart: Lac Man (2020) - Team Presentation [English]**Title:** LAC MAN - The effective water filter to counter drug residues in wastewater **Abstract:** Our project LAC-MAN focusses on water purification from the pharmaceuticals diclofenac (pain relivers) and carbamazepine (antiepileptika) using laccases. These substances still cannot be filtered out of the wastewater completely. The laccases, a class of enzymes able to degrade numerous pollutants, are immobilized to a mesoporous silica foam, making them long-term sustainable and more pH- and thermostable. Silica-based materials are well suited because they are environmentally friendly, biocompatible and resistant to organic solvents and microbial attacks. Because the enzymes are bound to a matrix via our innovative poly-lysine tag, no genetically modified organisms are released into the environment. Furthermore, the degradation products have no negative effects on nature anymore. We were able to express the laccase of S. cyaneus and to synthesize the silica foam. Furthermore, we were able to predict the substrate conversion rate in regard to the amount of immobilized laccases via a kinetic model according to Michaelis-Menten. [Wiki](https://2020.igem.org/Team:Stuttgart) | [Project Promotion](https://video.igem.org/videos/watch/ea0c40c3-948f-4e75-8e1b-76fe75bfa5af)https://static.igem.org/peertube/streaming-playlists/hls/066fa768-8070-4ae6-afb8-30a21185888c/d1610bda-556f-491d-b43b-4692a43fa0ba-master.m3u8https://video.igem.org/videos/embed/1N6zNvSMgpPFfbGx4zVp2w11270792020-10-29T17:25:16.929ZGermanyEnvironmentEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/2MmUD7PcTWqC7roiumJ7ERhttps://video.igem.org/lazy-static/thumbnails/fffe462b-4279-44ca-b6c8-b9008472e7f3.jpgIonis_Paris: BacTail (2020) - Team Presentation [English]**Title:** BacTail : Target, Kill and Self-Destroy, an innovative way to fight against antimicrobial resistance **Abstract:** Since the discovery of antibiotics, their massive and repeated use has led to the appearance of resistant bacteria for which no treatment exists. This is a major healthcare issue to which the IONIS Paris 2020 team is trying to respond. BacTail aims at designing tailor made therapeutic bacteria with three main abilities: Target, Kill and Self-Destroy. The first step is inspired by the specific recognition capabilities of bacteriophages. We will express their binding proteins on the surface of our bacteria. After binding to the pathogenic target, our bacteria will secrete specific antimicrobial peptides to kill it. For environmental and safety purposes, in order to prevent their dissemination, our bacteria is designed with an integrated kill-switch system. Once its mission is completed, it will self-destroy. All in all, BacTail is an innovative way to safely and locally target and kill antibiotic resistant bacteria. [Wiki](https://2020.igem.org/Team:Ionis_Paris) | [Project Promotion](https://video.igem.org/videos/watch/9590110a-e2b2-44d2-acf0-012f446699f7)https://static.igem.org/peertube/streaming-playlists/hls/0e6e7e39-a8fc-4dc6-983c-da686e39db35/9dc77bb9-9343-4c8c-aa9f-f83514162c98-master.m3u8https://video.igem.org/videos/embed/2MmUD7PcTWqC7roiumJ7ER119901562020-10-29T17:55:45.137ZTherapeuticsFranceEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/uqPoF73Dnqx4utX1CjSJiThttps://video.igem.org/lazy-static/thumbnails/42f2d26a-badf-47c8-abc6-d50756ae38a0.jpgHannover: InToSens – Development of an Inflammatory Toxin Sensor for detecting i... (2020) - Team...**Title:** InToSens - Development of an Inflammatory Toxin Sensor for detecting implant associated inflammations **Abstract:** The placement of implants is one of the most frequently performed operations in hospitals all over the world, still increasing in number. Unfortunately, the risk to develop an implant-associated inflammation after such surgeries is very high. The origin of an implant-associated inflammation is often biofilms, which attach to the implant surface. Targeted treatment of such bacterial biofilms is challenging. A typical therapeutic approach with antibiotics often fails. In the worst case, a generous removal of the region is mandatory. Therefore, it would be helpful to detect the formation of a biofilm at an early stage, increasing the probability of successful treatment. Our project aims to develop a sensor that makes this possible. The sensor is realized by genetically-engineered cells, which can recognize bacterial toxins and produce biomarkers as a response. Throughout the development, we looked at our project from different points of view in conjunction with social and ethical aspects. [Wiki](https://2020.igem.org/Team:Hannover) | [Project Promotion](https://video.igem.org/videos/watch/121090e7-5421-427f-8a69-1bd0a39ed234)https://static.igem.org/peertube/streaming-playlists/hls/e636f04c-1461-425a-9faa-f25b78b855e5/88e47fb7-b6a2-4154-87b8-e42afeb27680-master.m3u8https://video.igem.org/videos/embed/uqPoF73Dnqx4utX1CjSJiT119101262020-10-29T18:21:11.602ZGermanyDiagnosticsEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/uE9k7NiDCftyHHyuSCXR2Yhttps://video.igem.org/lazy-static/thumbnails/b5943954-6fd3-4d28-889f-7906c1790ae8.jpgHainan_China: CHLORIS (2020) - Team Presentation [English]**Title:** CHLORIS: Coral HeaLth bOost and Reinforcement In Symbiosis **Abstract:** Coral reefs are secret gardens under the sea. Accelerated anthropogenic CO2 emission has led to elevation of surface temperature and acidification of the seawater. Symbiont Zooxanthellae cells are then expelled by corals, leading to coral bleaching. If the coral reefs remain bleached, they would proceed to eventual death, and destruction of the marine ecosystem. Hainan_China aims to develop a nutritional enhancement strategy to safeguard coral reefs against the devastation by coral bleaching. We plan to introduce synthetically engineered 'probiotics' to stimulate coral microbiota for sustainability of Zooxanthellae-bacterial interaction and viable metabolic functioning of the coral systems. The probiotics would enable production of nutrients, such as N, P, Fe, and Vitamin B12 to nourish the coral symbiosis against environmental stresses. We will then design and fabricate a microfluidic chip to study in-depth the coral-Zooxanthellae symbiosis for large scale applications. [Wiki](https://2020.igem.org/Team:Hainan_China) | [Project Promotion](https://video.igem.org/videos/watch/fd7dcdb9-61ae-4463-9429-2c006bed0cfe)https://static.igem.org/peertube/streaming-playlists/hls/e813476f-53c2-4234-b7b1-be0cfa52bc6e/39c826b3-e66b-457d-8f9d-225f175cf88c-master.m3u8https://video.igem.org/videos/embed/uE9k7NiDCftyHHyuSCXR2Y8360262020-10-29T18:33:30.019ZHighSchoolChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/ukLDnTQu9AvmK8ziECJuUchttps://video.igem.org/lazy-static/thumbnails/b9606a5d-0f93-4692-ba3a-fdee4f01cbb6.jpgLambert_GA: AgroSENSE (2020) - Team Presentation [English]**Title:** AgroSENSE **Abstract:** Over 23.5 million Americans face food insecurity or have limited access to affordable and fresh produce, leading to nutrient deficiency. Aquaponics is a pragmatic solution to address food insecurity, but maintenance and costs are barriers to implementation. Lambert iGEM's AgroSENSE utilizes modular hardware, nutrient biosensors, and iOS/Android compatible software to monitor and analyze nutrient levels and environmental conditions to optimize plant growth. Our Arduino sensors measure environmental conditions while biosensors are utilized to monitor phosphate and nitrate nutrient balance. We characterized BioBricks based on E. coli's native PHO and NAR signaling pathways. The expression of GFP in the presence of these nutrients is analyzed by Fluoro-Q, our improved frugal fluorometer. The data will be quantified by our Agro-Q mobile app, enabling end-users to make informed decisions regarding aquaponics systems. With an emphasis on integration of educational curriculum, AgroSENSE serves as a model for future agricultural biotechnology innovations. [Wiki](https://2020.igem.org/Team:Lambert_GA) | [Project Promotion](https://video.igem.org/videos/watch/f43ed716-3089-4c22-b363-9bd95017a440)https://static.igem.org/peertube/streaming-playlists/hls/e58286f8-156f-450d-8653-9e6c7f0bb413/99619486-d6d3-4ed1-89f8-aa39c8475278-master.m3u8https://video.igem.org/videos/embed/ukLDnTQu9AvmK8ziECJuUc11980942020-10-29T19:35:56.128ZNorthAmericaHighSchoolUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/4ZYq2UuCLJvqEYD7gosCHAhttps://video.igem.org/lazy-static/thumbnails/0d0798b7-045f-453b-b063-cd4477c7b8cc.jpgULaval: aSAP (2020) - Team Presentation [English]**Title:** aSAP: a solution against maple polymers **Abstract:** Maple syrup has a great cultural and economic importance for Canada. However, several issues can lower the quality of the final product. We engaged in conversations with experts to identify potential solutions to these problems, ultimately targeting ropy maple syrup. Ropy syrup has a very high viscosity, is not marketable, and damages maple syrup production equipment, which results in important economic losses, particularly for smaller producers. It is caused by the presence of dextrans produced by specific types of bacteria in the sap. aSAP, by team iGEM ULaval 2020-2021, will aim to develop an enzymatic treatment to degrade dextran and turn ropy maple syrup into a marketable product. Since maple syrup is stored at room temperatures, we are planning to use a dextranase from a psychrophile (cold-adapted) bacteria. In 2020, we have validated our candidate enzyme in silico, planned experiments to characterize and optimize it, and designed our implementation proposal. [Wiki](https://2020.igem.org/Team:ULaval) | [Project Promotion](https://video.igem.org/videos/watch/63a4e440-3c7a-4478-a093-5bd69a83c622)https://static.igem.org/peertube/streaming-playlists/hls/206393d4-0a42-43f3-9161-78e44039344c/f5916748-2bfb-41a5-af6c-fc77be201359-master.m3u8https://video.igem.org/videos/embed/4ZYq2UuCLJvqEYD7gosCHA11660492020-10-29T19:49:58.671ZNorthAmericaFood&NutritionCanadaYES2020 Team PresentationsNOhttps://video.igem.org/w/t9jYPtSdTqPqNBuzLu8QL9https://video.igem.org/lazy-static/thumbnails/36d7edfc-cd0a-4132-bafd-281a26b3738a.jpgCornell: Lumicure (2020) - Team Presentation [English]**Title:** Lumicure **Abstract:** This year, Cornell iGEM aims to design a bacteriotherapy treatment and tracking system for cancerous malignant tumors. This system aims to take advantage of the fact that cancerous tumors have an immunoprivileged microenvironment and that malignancies migrate through the bloodstream to other parts of the body. To our bacteria, we will introduce genetic constructs coding for a therapeutic: trichosanthin. We have designed a lactate-inducible toxin-antitoxin system (GhoS/GhoT) which ensures the E. coli do not survive outside of the high-lactate environment of the tumor. These E. coli cells will also be engineered to constitutively express mCardinal, a fluorescent protein, detectable by our fluorescence detection system. This detection system will consist mainly of: an excitation filter and emission filter, a dichroic mirror, a laser, and a raspberry pi microcontroller. We hope that we can effectively demonstrate a proof-of-concept for this treatment system in treating real cancerous tumors later on down the line. [Wiki](https://2020.igem.org/Team:Cornell) | [Project Promotion](https://video.igem.org/videos/watch/28d926b4-f877-40ef-bea6-6acc06a3b922)https://static.igem.org/peertube/streaming-playlists/hls/dbd063fd-eadc-4e7e-a9d3-b84cb0901858/db632f81-d87a-4384-bc60-5441c6066496-master.m3u8https://video.igem.org/videos/embed/t9jYPtSdTqPqNBuzLu8QL911620762020-10-29T20:33:00.197ZNorthAmericaTherapeuticsUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/947rqjFV26kcY4gU94428vhttps://video.igem.org/lazy-static/thumbnails/a2c3a20f-4793-4a47-8d48-5809d7988fd0.jpgUiOslo_Norway: Sal.Coli (2020) - Team Presentation [English]**Title:** Sal.Coli - A detection system and approach for treating amoebic gill disease **Abstract:** The biological and environmental concerns that the aquaculture industry faces require innovation in both detection and treatment of disease in fish. Among these is amoebic gill disease caused by Paramoeba perurans affecting Atlantic salmon. Paramoeba perurans is a parasite that latches onto the gills of salmon and causes discomfort and possibly death by reducing the respirational surface area on the gills. Our project aims to create an automatic detection system. To create this system we are investigating collective behaviors and how one can use them to diagnose diseases. We also aim to use genetically modified Escherichia coli to produce salinomycin, an antiparasitic compound. The gene cluster for salinomycin production will be transferred into E. coli step by step, with the goal to provide an alternative route to production of this compound. We hope that our system will complement current diagnostic tools and treatments used in aquaculture today. [Wiki](https://2020.igem.org/Team:UiOslo_Norway) | [Project Promotion](https://video.igem.org/videos/watch/539db517-5695-44fa-8352-6d9291b0ace0)https://static.igem.org/peertube/streaming-playlists/hls/41384eed-8010-493e-b9a2-69198c98baff/a2f72657-72fc-41e5-a97c-502335012d6e-master.m3u8https://video.igem.org/videos/embed/947rqjFV26kcY4gU94428v118201502020-10-29T21:42:18.524ZDiagnosticsNorwayEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/qWYdkmWJxttaDybRQtX1t1https://video.igem.org/lazy-static/thumbnails/8ec9380b-5260-472f-a7f2-c7e4a67b465a.jpgStockholm: S-POP (2020) - Team Presentation [English]**Title:** S-POP: a modular biosensor for the detection of POPs in water **Abstract:** After centuries spent using oceans for waste management, we've finally realized impact of water pollution. Persistent Organic Pollutants (POPs), including PFOS (perfluorooctanesulfonic acid) and PCBs (polychlorinated biphenyls), have been of great concern, due to their toxicity in low concentrations and bioaccumulating properties that lead to alarming concentrations in the ecosystem. Current detection methods, which are performed by analyzing massive amounts of water samples in the lab, cannot properly measure the low levels of POPs nor differentiate between the various iterations that exist. Our project S-POP aims to solve this issue by creating a monitor containing two major parts, a modular E. coli biosensor coupled with a Microbial Fuel Cell. When E. coli is activated by the pollutant a Quorum sensing (QS) molecule is produced. Upregulated by the QS-molecule, engineered Shewanella oneidensis produces an oscillating electrical signal that corresponds to the type and quantity of pollutants in the sample. [Wiki](https://2020.igem.org/Team:Stockholm) | [Project Promotion](https://video.igem.org/videos/watch/9b1a796e-6c59-46a0-9fbc-8dcfe68b9484)https://static.igem.org/peertube/streaming-playlists/hls/ca082239-fd45-40a8-a5ad-b574bf385ca6/7a083265-633b-4b25-8c6d-5f6196fd5c37-master.m3u8https://video.igem.org/videos/embed/qWYdkmWJxttaDybRQtX1t111220462020-10-31T09:50:34.394ZEnvironmentEuropeSwedenYES2020 Team PresentationsNOhttps://video.igem.org/w/1QiRMLSLxDFse9zHDe4sUwhttps://video.igem.org/lazy-static/thumbnails/9b3dbb28-8fbe-434b-adf3-c3610d426901.jpgBeijing_4ELEVEN: Acneutralizer (2020) - Team Presentation [English]**Title:** Acneutralizer **Abstract:** Acne vulgaris troubles teenagers and sometimes adults as it not only affects the skin but also self-confidence. Traditional treatment to acne vulgaris involving antibiotics may trigger drug resistance in acne pathogenic bacteria, especially Propionibacterium. acnes. Antimicrobial peptides (AMPs) are considered excellent alternatives of antibiotics for their capability of providing effective, broad-spectrum defenses against infections and exhibiting relatively low potential to elicit resistance. However, AMP curing products nowadays are not abundant, and most AMPs are produced via chemosynthesis, a rather costly method incapable of yielding AMPs with great antimicrobial potency. Therefore, we aim to create an anti-acne product which consists of biosynthesized P. acnes killing AMPs, adhesive/cohesive proteins, and tyrosinase. The mixture which we named Acneutralizer forms a thin film when applied to acne-infected skin. This product may be brought to market, helping acne sufferers improve their conditions by easily killing P. acnes. [Wiki](https://2020.igem.org/Team:Beijing_4ELEVEN) | [Project Promotion](https://video.igem.org/videos/watch/5e37b5c2-634a-476c-833f-36a10b027a0c)https://static.igem.org/peertube/streaming-playlists/hls/06beb4e4-7a67-459e-99bd-8e91205a9eb6/b91ad648-6c75-4308-9897-32c2357d8344-master.m3u8https://video.igem.org/videos/embed/1QiRMLSLxDFse9zHDe4sUw9420472020-10-29T22:18:22.561ZHighSchoolChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/tMvgcqMeJ3jcvrac6ozYzWhttps://video.igem.org/lazy-static/thumbnails/24949c71-c903-452c-90a9-6a2d155278aa.jpgAix-Marseille: Make Some Rhamnoise (2020) - Team Presentation [English]**Title:** Make some Rham-Noise **Abstract:** Since the 70's green algae have been proliferating and forming what are called green tides on certain beaches in France, but also in China and the United States. This is mainly due to nitrogen-rich fertilizers used in intensive agriculture The green algae on the beach decompose and produce hydrogen sulfide a deadly gas for animals and humans. One very promising route for recovery is the production of bioethanol that could be blended with gasoline and used by adapted vehicles. The objective of our project is to define an efficient process to transform ulvan, a sugar polymer present in large quantities in the wall of Ulva into rhamnose and other fermentable sugars using the enzymes from Formosa Agariphila inserted in Saccharomyces cerevisiae and then transform it into bioethanol using the fermentation capacity of Saccharomyces cerevisiae and Pichia stipitis. Thanks to this Ulva could become a renewable and profitable source of energy. [Wiki](https://2020.igem.org/Team:Aix-Marseille) | [Project Promotion](https://video.igem.org/videos/watch/ef1375fa-6bfd-4858-bb68-6f147c6ac0d7)https://static.igem.org/peertube/streaming-playlists/hls/e1013f30-2bec-4f34-afe5-906aa0543c78/7eb8e290-de22-4c77-bc5d-b23a2cb64659-master.m3u8https://video.igem.org/videos/embed/tMvgcqMeJ3jcvrac6ozYzW89301662020-10-29T22:32:46.772ZEnvironmentFranceEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/e6tCYTXmR78bb5dRe2mGTmhttps://video.igem.org/lazy-static/thumbnails/0bf7b2d7-50c8-47fe-9c55-aff220c2a906.jpgTPR_China: Locust Master (2020) - Team Presentation [English]**Title:** Locust Master **Abstract:** Locust plague has been one of the devastating disasters to humans and the environment. Both chemical and biological pesticides were widely used, but because of the rapid movement and unpredictability of locust swarms, these methods are costly and cause serious environmental problems. We designed a rapidly deployable locust attraction scheme, the core of which is to synthesis specific locust aggregation pheromone 4-Vinylanisole to attract locusts and prepare for further rapid and effective eradication in the attraction area. Furthermore, an engineered bacteria which can degrade phenylacetonitrile was successfully created, avoiding its interference to the trapping effect. Through synthesis of 4-Vinylanisole and degradation of Phenylacetonitrile, locusts are 'attracted' together and the site-specific control of locust swarms is realized. Our project provides a more environmentally friendly and greener way to kill locusts in the future. [Wiki](https://2020.igem.org/Team:TPR_China) | [Project Promotion](https://video.igem.org/videos/watch/e25ac87b-fbdb-4a89-bd63-836e7e5bd7f6)https://static.igem.org/peertube/streaming-playlists/hls/6a0a8dbf-ca67-43e4-9071-82b9d3b6a2d2/ff252dad-614f-49be-ac4c-bb721aa5258f-master.m3u8https://video.igem.org/videos/embed/e6tCYTXmR78bb5dRe2mGTm11940332020-10-29T23:23:41.890ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/qMLxdwG1NxgKg7QPp2yBMhhttps://video.igem.org/lazy-static/thumbnails/f7d03b3f-4331-4c82-9438-83cc98b3db60.jpgGaston_Day_School: Eliminating Kudzu to Restore Natural Habitats for Crops and E... (2020) - Team...**Title:** Eliminating Kudzu to Restore Natural Habitats for Crops and Endangered Species **Abstract:** In order to remove kudzu, farmers and power companies often have to spray harmful chemicals on their land. These chemicals, along with many other kudzu removal options, are expensive and can pose harmful effects to human health and the ecosystem. Pseudomonas syringae pv. phaseolicola has been found to affect legumes specifically by producing the phytotoxin phaseolotoxin. Our team plans to replicate the phaseolotoxin production pathway in Escherichia coli and utilize the toxin as a more environmentally friendly option to remove kudzu. After the removal of kudzu, local endangered species can regrow without competition. Additionally, we developed three models to simulate the spread of infectious plant diseases like Asian Soybean Rust using kudzu as a vector, simulate the ROTCase production and activity under promoters with different strengths, and predict the spread and management cost of kudzu in a local area. [Wiki](https://2020.igem.org/Team:Gaston_Day_School) | [Project Promotion](https://video.igem.org/videos/watch/1e8ef43f-7426-42e2-856c-57a0c3ebb572)https://static.igem.org/peertube/streaming-playlists/hls/c8bf3ec1-2dc3-4bef-a98c-6d8deddf175e/05d30c29-2e65-4d45-ad91-355e6a955ce5-master.m3u8https://video.igem.org/videos/embed/qMLxdwG1NxgKg7QPp2yBMh11580222020-10-30T02:01:11.020ZNorthAmericaEnvironmentUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/cn4Sd3erVxoJ5WyWRrBCCWhttps://video.igem.org/lazy-static/thumbnails/269e931c-6bff-4857-8b85-82dc85858e3a.jpgLinkoping: ClusteRsy (2020) - Team Presentation [English]**Title:** ClusteRsy: A user-friendly software for transcriptomic analysis and biomarker discovery **Abstract:** Asthma is a chronic and inflammatory disease that affects the airways of 339 million people around the world yet the specific causes and triggers of asthma are still unknown. There is an increasing demand for refined diagnostic methods and in the age of Big data, the advancement of powerful algorithms provides an approach different from traditional methods. With the creation of the web-based software ClusteRsy we empower clinicians and biologists to analyze any RNA-seq data without the need of a bioinformatician. Through the use of ClusteRsy and our designed workflow, differentially expressed genes and pathways can be determined, which is pivotal to understand the mechanisms of diseases and find potential biomarkers. With the processed information, we have designed a theoretical biosensor to detect and distinguish asthma from similar conditions, hereby simultaneously striving to decipher the etiology of asthma and improving the diagnosis for the disease. [Wiki](https://2020.igem.org/Team:Linkoping) | [Project Promotion](https://video.igem.org/videos/watch/8d31cb32-93cb-411b-8b8d-497922ab1d8c)https://static.igem.org/peertube/streaming-playlists/hls/5c0586d7-1ca4-4ad3-b7b5-bee33fcfa696/92a0f3cf-0fb1-4b3c-acb2-990ccf0a7e43-master.m3u8https://video.igem.org/videos/embed/cn4Sd3erVxoJ5WyWRrBCCW11910912020-10-30T00:19:02.160ZEuropeSoftwareSwedenYES2020 Team PresentationsNOhttps://video.igem.org/w/hLWQLPaKeoSimmBHvHZwYYhttps://video.igem.org/lazy-static/thumbnails/9844f5be-91b8-4e77-aeca-7c07d52f9beb.jpgWaterloo: REMINE (2020) - Team Presentation [English]**Title:** REMINE **Abstract:** REMINE is a packed column bioreactor containing metal-binding proteins which remove and recover toxic but valuable heavy metals from electronic manufacturing wastewater. The REMINE system can be customized to target specific metals by increasing the metal affinity of the proteins using molecular dynamics and protein engineering tools. Process engineering methods will be used to design the packed column reactor and optimise it to specific waste streams and regulatory constraints. With REMINE, the electronic industry can continue to grow while reducing its impact on our environment and health. [Wiki](https://2020.igem.org/Team:Waterloo) | [Project Promotion](https://video.igem.org/videos/watch/ef5abb88-bbb0-4a81-96c1-8d5e2a2ca39d)https://static.igem.org/peertube/streaming-playlists/hls/87d8bdc9-1c8c-436f-a413-ce27ff641478/468c21af-0961-4b13-a193-8c691d7998a6-master.m3u8https://video.igem.org/videos/embed/hLWQLPaKeoSimmBHvHZwYY11140622020-10-30T02:52:28.551ZManufacturingCanadaNorthAmericaYES2020 Team PresentationsNOhttps://video.igem.org/w/skb1NN8PhWVCwborLorDBVhttps://video.igem.org/lazy-static/thumbnails/5ffccca1-fc4c-427b-9f59-086e489a6873.jpgStony_Brook: LightSwitch (2020) - Team Presentation [English]**Title:** Light-triggered knockdown of the WUSCHEL gene in Nicotiana benthamiana **Abstract:** Genetically modified (GM) crops have seen widespread adoption in large-scale agriculture, given their potential to improve commercial farming yields and mitigate crop losses from pests and pathogens. With widespread adoption, they could also increase the incidence of gene flow¬óthe transfer of genetic variation across populations¬ófrom transgenic to wild crops, threatening biodiversity. Hence, a solution is proposed wherein an optogenetic killswitch, introduced in Nicotiana benthamiana, preventing plant development upon exposure to UV-B light (~311 nm). Through the optogenetic pair comprised of ULTRAVIOLET RESPONSE LOCUS 8 (UVR8) with attached tetracycline repressor domain (TetR) and CONSTITUTIVE PHOTOMORPHOGENIC1 (COP1) with attached VP16 transactivation domain, the transcription of synthetic trans-acting small interfering RNAs (syn-tasiRNAs) will be controlled. These syn-tasiRNAs will disrupt the CLAVATA-WUSCHEL signaling pathway through the knockdown of the WUSCHEL (WUS) gene. Stem cells in the shoot apical meristem (SAM) will differentiate, causing stem cell depletion and prevention of further plant growth. [Wiki](https://2020.igem.org/Team:Stony_Brook) | [Project Promotion](https://video.igem.org/videos/watch/d163a1d7-0573-443a-9060-fa16f4bf5e2f)https://static.igem.org/peertube/streaming-playlists/hls/d53ae878-0633-4b89-9b7f-d0f25870645f/f54220ff-4988-402b-8046-e35e68473ba2-master.m3u8https://video.igem.org/videos/embed/skb1NN8PhWVCwborLorDBV11470262020-10-30T03:13:30.586ZNorthAmericaUnitedStatesEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/iNqasr9573QQYqjKjLYkmYhttps://video.igem.org/lazy-static/thumbnails/23c83558-514f-46c1-bfee-02ffe455bdd6.jpgWaseda: Zombie vs Samurai -Strategic struggle in cell-free systems- (2020) - Team Presentation [E...**Title:** Zombie vs Samurai -Strategic struggle in cell-free systems- **Abstract:** Cell-free systems are a flexible, quick, and powerful tool in synthetic biology that enables us to conduct back and forth the lab experiments and modeling. In order to continue our project under restricted lab access by COVID-19, We conducted projects (modeling and wet experiment, education, entrepreneurship) with cell-free systems.¬† The modeling is based on the struggle between Zombie and Samurai. Zombies attack humans and turn them into zombies. On the contrary, humans help zombies and return them to humans.„ÄÄIn modeling, completion of the system was achieved by adapting the quorum sensing systems. We have confirmed working quorum sensing systems in the cell-free system.¬† It's important to know the smell to distinguish between Zombie and Samurai. We have created multiple monoterpene (Limonene, Sabinene) from glucose in cell-free systems. Finally, we are attempting to make gene circuit of model of these story. [Wiki](https://2020.igem.org/Team:Waseda) | [Project Promotion](https://video.igem.org/videos/watch/9864a4c8-8f01-4065-9ce4-a16e245b2408)https://static.igem.org/peertube/streaming-playlists/hls/9026762d-cab0-434b-92c2-82b4d0ed8cec/7d2bd1ae-47a0-4fd2-b1ba-2fbe3355c2b0-master.m3u8https://video.igem.org/videos/embed/iNqasr9573QQYqjKjLYkmY119402732020-10-30T03:28:42.727ZAsiaJapanInformationProcessingYES2020 Team PresentationsNOhttps://video.igem.org/w/tzFY4qfuimieJZTaCLTLaYhttps://video.igem.org/lazy-static/thumbnails/1699b416-479f-4bc8-8646-9b58c0ef0258.jpgCCA_San_Diego: Project Acefate (2020) - Team Presentation [English]**Title:** Acefate: Degradation of the Pesticide Acephate Using Genetic Modification **Abstract:** The bio-degradation of the insecticide acephate using genetically modified Escherichia coli is studied in this project. Acephate exposure causes severe environmental and human side effects as well as paralysis or death. In this study, we enriched samples of acephate-treated soil for 5 weeks to propagate the growth of acephate-degrading bacteria. 10g from each sample was diluted 10-fold. DNA was subsequently extracted from bacterial colonies using the genomic etNA extraction and the 16S rRNA gene was sequenced. Degradation was monitored with HPLC and LC-MS. Certain genes, such as OPD, were isolated and analyzed using bioinformatics tools including CDD. Amplified genes were inserted into base plasmid pMMB206 using restriction digest protocol into E. coli K12. BetI, a transcription factor-based kill-switch, was added to the plasmid. While experiments could not be performed, MATLAB modeling and literature indicate the approach provides an effective pathway, with >99% degradation of acephate and all harmful intermediates. [Wiki](https://2020.igem.org/Team:CCA_San_Diego) | [Project Promotion](https://video.igem.org/videos/watch/f19eeaa6-cea3-415e-810d-5f265eddea51)https://static.igem.org/peertube/streaming-playlists/hls/df5aeb21-9200-4843-8e97-99b0e9786c6a/447a0a0b-96e8-41b5-92d7-17086f0258f8-master.m3u8https://video.igem.org/videos/embed/tzFY4qfuimieJZTaCLTLaY11860402020-10-30T04:51:05.070ZUnitedStatesNorthAmericaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/tefXwgWh5NRkbuN7EpjfrVhttps://video.igem.org/lazy-static/thumbnails/a3ba151b-9da7-424b-aade-c6fcea952161.jpgMoscow-Russia: Genomus. Genetic Diseases Prevention System (2020) - Team Presentation [English]**Title:** Genomus - a preconceptional screening system of four most frequent and almost incurable autosomal-recessive diseases **Abstract:** Autosomal-recessive diseases, such as cystic fibrosis, phenylketonuria, galactosemia and sensorineural hearing loss affect thousands of people worldwide. There's no widely-available treatment for these diseases yet. We consider that the best way to give birth to a healthy child is proper pregnancy planning and genetic screening before the conception. During the iGEM 2020 season, our team has developed Genomus ¬ñ a preconceptional screening system which is capable of significantly reducing the amount of autosomal-recessive mutations in the human population. Genomus consists of three parts: 1. Laboratory where we collect and proceed blood or saliva samples and perform genotyping; 2. Secure database with over 1500 potential parents' genotypes, website and mobile application with algorithms of genotypes comparison using QR-codes for authorized comparison access. 3. User-friendly notification & pregnancy planning guidance system. The main idea of Genomus is to integrate genetic screening in pregnancy planning programms, make it popular and avaible for everyone. [Wiki](https://2020.igem.org/Team:Moscow-Russia) | [Project Promotion](https://video.igem.org/videos/watch/34f01a3d-2971-4faa-89dd-6aba89d8b7aa)https://static.igem.org/peertube/streaming-playlists/hls/dc80a16d-935b-4daa-9037-91515432f357/eea3b925-9315-4af6-9c8e-76cd791af03e-master.m3u8https://video.igem.org/videos/embed/tefXwgWh5NRkbuN7EpjfrV8070552020-10-30T05:40:41.583ZEuropeDiagnosticsRussianFederationYES2020 Team PresentationsNOhttps://video.igem.org/w/qUer5eV1uzByLnqe4DNiuzhttps://video.igem.org/lazy-static/thumbnails/4063f7bb-32e9-4a14-8c9e-cccac7fb19d3.jpgNEFU_China: Bio-optical Landmine Detection (2020) - Team Presentation [English]**Title:** Bio-optical Landmine Detection **Abstract:** Currently, at least 110 million landmines are still buried in the field worldwide. These landmines cause not only tens of thousands of human casualties each year, but also serious environmental pollution. To help deminers detect landmines in a fast and safe way, our team designed a bio-optical landmine detection device. We engineered an E. coli strain harboring a gene circuit to sense the dinitrotoluene (DNT), a typical chemical released by landmines. DNT can trigger the bioluminescence generation module in our engineered bacteria, and emitted optical signal can be captured and converted to digital output by the device, which is uploaded to an on-site computer. Through data processing, we will be able to create a probabilistic heat map of the landmines in a particular area. Eventually, an optimized landmine clearance route can be proposed to assist manual landmine detection with a minimal risk of deminers' injury. [Wiki](https://2020.igem.org/Team:NEFU_China) | [Project Promotion](https://video.igem.org/videos/watch/b5a5d8a5-8f93-4681-899d-ecf14ada4303)https://static.igem.org/peertube/streaming-playlists/hls/c9a64825-b840-4f1d-a9c2-056ef5179f7d/b979b607-49a3-4891-84e6-eb8588161d04-master.m3u8https://video.igem.org/videos/embed/qUer5eV1uzByLnqe4DNiuz119101112020-10-30T05:48:12.813ZAsiaChinaNewApplicationYES2020 Team PresentationsNOhttps://video.igem.org/w/3B6sm1f1WMQ1JcdTNmKQBMhttps://video.igem.org/lazy-static/thumbnails/944f1b73-3609-4d5d-a2bf-908885d54f0d.jpgWorldshaper-Shanghai: New Non-invasive Technique for Early Stage Prostate Cancer... (2020) - Team...**Title:** New non-invasive technique for early stage prostate cancer diagnosis **Abstract:** The most common clinical diagnosis nowadays for prostate cancer is digital rectal examinationÔºåserum PSA test and prostate biopsy, which, to some extend, is invasive or can cause physical discomfort. The goal of Worldshaper-Shanghai 2020 is to develop a new non-invasive technique for early stage prostate cancer diagnosis, mainly by expressing the color variation of the tested urine since urine test could be the simplest, painless and rapid test method for prostate cancer diagnosis.Our equipment design combined the technology of reverse transcription, gene amplification (PCR/RPA) and RNA hairpin structure (Toehold switch), to detect the specificity of RNA biomarkers of prostate cancer in the urine (PCA3 and KLK3), the final red fluorescence protein output will be report as visible results, so as to achieve the purpose of our visual diagnosis of prostate cancer. [Wiki](https://2020.igem.org/Team:Worldshaper-Shanghai) | [Project Promotion](https://video.igem.org/videos/watch/ce8f6b91-cd82-45db-9200-cb614890fadf)https://static.igem.org/peertube/streaming-playlists/hls/1518aba9-6c93-47ad-a20c-78245afe4753/75143f48-b2f3-460a-ae6b-978de914a5aa-master.m3u8https://video.igem.org/videos/embed/3B6sm1f1WMQ1JcdTNmKQBM11150342020-10-30T05:57:14.002ZChinaAsiaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/1cA6wHktop1HgZsbpeatoDhttps://video.igem.org/lazy-static/thumbnails/ffc4b5d5-79f7-43c6-81be-775b704e223a.jpgBaltimore_BioCrew: Phytoplankton Revitalization (2020) - Team Presentation [English]**Title:** Improving Iron Uptake and Processing in Synechococcus CB0101 to Bolster Marine Ecosystems **Abstract:** In 1/3 of the world's oceans, the iron concentration limits phytoplankton growth. Iron is required for photosynthesis and is critical for the base of the marine food web. A better ability to capture iron could increase phytoplankton populations which would have benefits such as reducing atmospheric carbon dioxide by acting as a carbon sink. We decided to engineer Synechococcus (cyanobacteria) because it consumes high levels of CO2, has a high replication rate, and has been used by many previous iGEM teams. Our project will engineer cyanobacteria to transport iron into cells and reduce it to the bioavailable Fe(II) form. The increased iron utilization will increase photosynthesis and growth of phytoplankton. To prevent harmful phytoplankton blooms, a kill switch will also be added to the cells to prevent overgrowth of cells if iron concentration increased significantly. These modifications will stabilize the marine food chain and absorb CO2 from the atmosphere. [Wiki](https://2020.igem.org/Team:Baltimore_BioCrew) | [Project Promotion](https://video.igem.org/videos/watch/61812375-c32d-4ff4-bc39-bbd729d4a0ca)https://static.igem.org/peertube/streaming-playlists/hls/019e3187-1b4f-4fae-a1c8-8eea0e4b5105/9e9d68ab-4e66-447b-baae-7ed3966a55cd-master.m3u8https://video.igem.org/videos/embed/1cA6wHktop1HgZsbpeatoD12000502020-10-30T06:02:48.606ZUnitedStatesNorthAmericaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/3mhNd28S1ooQKDkQyjATeYhttps://video.igem.org/lazy-static/thumbnails/f1709104-49a2-4567-b7ac-a28f91442cc0.jpgCU-Boulder: NO PROJECT TITLE (2020) - Team Presentation [English]**Title:** Engineering Self-Fertilizing Plants **Abstract:** All plants need nitrogen to survive, but cannot use nitrogen (N2) directly from the atmosphere. They must receive their nitrogen as ammonia (NH3) that has been fixated by other sources such as symbiotic bacteria, decomposing plants, or synthetic fertilizers. Today, the world population is only sustainable if ammonia-rich fertilizers are used to increase crop production. However, fertilizer is an environmental hazard due to the extensive release of carbon dioxide. Also, fertilizer runoff causes algae populations to grow faster than the ecosystem can handle, creating oxygen-depleted dead zones within the ocean. Due to growing environmental concerns, genetically engineering plants to contain the bacterial enzyme, nitrogenase, may allow plants to become self-fertilizing. Nitrogenase is extremely sensitive to radical oxygen and may not survive in plant cells. Our team has proposed a protein engineering solution by coupling an enzyme that scavenges radical oxygen (superoxide dismutase) directly to nitrogenase; allowing for self-fertilization. [Wiki](https://2020.igem.org/Team:CU-Boulder) | [Project Promotion](https://video.igem.org/videos/watch/4ea7c6ef-33ba-4742-99bd-b11f23927d2f)https://static.igem.org/peertube/streaming-playlists/hls/13078108-bdaf-493f-bd86-b1e103eee046/e95bc51c-fd3e-47db-98ab-705da885295d-master.m3u8https://video.igem.org/videos/embed/3mhNd28S1ooQKDkQyjATeY7590182020-10-30T06:05:44.938ZUnitedStatesNorthAmericaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/w6nV72Ni94ogUZhhdwp111https://video.igem.org/lazy-static/thumbnails/df49c44a-101f-4901-a0ae-f146e7c03690.jpgUMaryland: A New CDC: Colorimetric Detection of COVID (2020) - Team Presentation [English]**Title:** A New CDC: Colorimetric Detection of COVID **Abstract:** Accelerating the pace and improving the accessibility of COVID-19 testing is critical for the world's response to the pandemic, especially in university settings. UMaryland iGEM set out to design a low-tech COVID-19 diagnostic test that is reliable, easy to use, and easy to interpret. Lacking access to a wet lab, the team has designed and modeled an isothermal CRISPR-based diagnostic that employs two DNA-programmed catalytically dead Cas13 (dCas13) recognition domains, each fused to part of a split beta-lactamase. A color change occurs upon reconstitution of the enzyme, and we predict with reasonable confidence that the signal will be visible to the human eye after 30 minutes. Three separate G-blocks will be used in conjunction with 3A assembly to clone the two dCas13-split-lactamase ORFs. Besides designing this test, we have rolled out a COVID-19 informational clearinghouse web site targeted to the UMD student population. [Wiki](https://2020.igem.org/Team:UMaryland) | [Project Promotion](https://video.igem.org/videos/watch/95e618be-168b-41f0-9e75-882476d566fa)https://static.igem.org/peertube/streaming-playlists/hls/f3b26275-c274-47f8-ba4e-ce13ca436df8/7cdbcb14-7582-455f-bad0-6e9121b16d59-master.m3u8https://video.igem.org/videos/embed/w6nV72Ni94ogUZhhdwp11112000422020-10-31T09:52:08.148ZNorthAmericaUnitedStatesDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/saVcGmU52KuMFFiySFUG9phttps://video.igem.org/lazy-static/thumbnails/588c3547-d8ee-4c8e-bbec-1ca4483875f4.jpgTsinghua-A: Medical Database based on DNA Storage (2020) - Team Presentation [English]**Title:** Medical Database Based On DNA Storage **Abstract:** Medical data is one of the most important kinds of data for a person. It has much to do with a person's health and privacy. DNA storage is a brand new way of storing information with many advantages. By using DNA storage to store text, images, waveform etc., we can build a medical database which helps the management of this important data for even everyone, bringing convenience without the concern of personal privacy. [Wiki](https://2020.igem.org/Team:Tsinghua-A) | [Project Promotion](https://video.igem.org/videos/watch/35083ff0-ada8-40f6-b72c-b3d8cff134c2)https://static.igem.org/peertube/streaming-playlists/hls/d3f015f5-3c31-4b85-b860-1fb9e70d71d7/5e1004dc-ee55-4c27-a604-0da5f46b0d80-master.m3u8https://video.igem.org/videos/embed/saVcGmU52KuMFFiySFUG9p10750682020-10-30T06:23:32.606ZAsiaChinaInformationProcessingYES2020 Team PresentationsNOhttps://video.igem.org/w/eScVMPSkHPXtg7y3E3ZKU7https://video.igem.org/lazy-static/thumbnails/d9c6236c-dbbc-4038-808d-1098afc0f7a4.jpgiBowu-China: Sureloc (2020) - Team Presentation [English]**Title:** Sureloc (Surely Locates Cancer) **Abstract:** Non-small cell lung carcinoma (NSCLC) is a common type of epithelial cancer, which is not sensitive to chemotherapy or radiotherapy. To address this issue, our team developed a therapy based on magneto-hyperthermia. We designed a vector that codes for magnetic protein crystals (MPCs) through the use of a tumor-specific promoter. Liposomes with surface PEG GE11 modifications carrying MPC vectors will target NSCLC cells. Post transfection, targeted tumor cells will express MPCs, which enable the binding of iron. Iron-loaded MPCs will then respond to localized alternating magnetic fields and induce cell death. The active targeting ligand, tumor-specific promoter, and localized alternating magnetic fields provide triple targeting security. Currently, we completed the in vitro isolation and purification of the MPCs with successful confirmation of their magnetism. The successive steps are to control the MPCs' size, add the internal targeting ligand, and experiment the targeting capabilities in vivo. [Wiki](https://2020.igem.org/Team:iBowu-China) | [Project Promotion](https://video.igem.org/videos/watch/d7d03968-47a2-4778-9d38-0c6f857acc78)https://static.igem.org/peertube/streaming-playlists/hls/70495773-cd36-47f8-9513-a7ee2f070022/bffb3426-8fa2-4878-8d7e-1998b9ceafbd-master.m3u8https://video.igem.org/videos/embed/eScVMPSkHPXtg7y3E3ZKU711890242020-10-30T06:17:43.811ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/cqo8SXuCrk1CzStnZ38nt5https://video.igem.org/lazy-static/thumbnails/fdc6d517-4302-4c09-8a5c-8862e2886818.jpgIISER-Pune-India: Anopheles: The Half Blood Princess (2020) - Team Presentation [English]**Title:** Anopheles: The Half-Blood Princess **Abstract:** The WHO estimated that 228 million people contracted Malaria globally and 405,000 people died from it in 2018. Our project aims to develop a library of inhibitory peptide drugs against certain essential human parasite protein interactions; resistance to current antimalarial therapeutics is on the rise. We intend to use cyclotides as stable protein scaffolds for these peptides. Using in-silico modelling, our dry lab team has designed short peptides that will potentially inhibit the protein interactions crucial for the invasion and survival of malaria parasites inside a human host. Our wet lab team has designed various experiments to clone and express the interacting host and parasite proteins, characterize the drug and reduce the toxicity of the grafted cyclotides. To address issues related to poor diagnostics, we have developed a diagnostic tool using convolutional neural networks which will be able to identify patients with malaria based on images of their blood smears. [Wiki](https://2020.igem.org/Team:IISER-Pune-India) | [Project Promotion](https://video.igem.org/videos/watch/f004803a-7d17-41e4-92f9-5d1ccca35be8)https://static.igem.org/peertube/streaming-playlists/hls/5c7c0476-938b-45a6-92d6-bc43fbb866ae/41cd9333-bc7c-4623-9c2b-9970dd047178-master.m3u8https://video.igem.org/videos/embed/cqo8SXuCrk1CzStnZ38nt511980782020-10-30T07:18:41.128ZTherapeuticsIndiaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/rX4Wpdr6mxWbN24oj6PLSahttps://video.igem.org/lazy-static/thumbnails/6404d1c7-60f5-41d2-b949-52e6b2cac33a.jpgUSAFA: DROP (2020) - Team Presentation [English]**Title:** Detection and Degradation of Perfluoroalkyl Substances through Bioengineering **Abstract:** Per- and polyfluoroalkyl substances (PFAS) contaminate public ground and surface waters, posing serious threats to wildlife and human health. Despite the ubiquitous nature of these compounds, there are limited technologies available to both detect and degrade these chemicals. To address this urgent need, the US Air Force Academy iGEM team engineered a novel PFAS responsive promoter to act as an efficient bioreporter for rapid detection of PFAS. Concurrently, the team screened PFAS-laden soil samples and identified several microbes that survive in high concentrations of PFAS. Delftia acidovorans, one of the microbes identified, contains the genes for several dehalogenases with potential activity to break down PFAS compounds. Alternate vectors and organisms for dehalogenase expression are being explored to determine maximum efficiency at removing fluorine ions from the PFAS carbon-fluorine backbone. Collaboration with water treatment experts and military research labs provides a multi-faceted attack on the PFAS issue. [Wiki](https://2020.igem.org/Team:USAFA) | [Project Promotion](https://video.igem.org/videos/watch/d6088c83-bfbe-4baa-a877-60e4e1681582)https://static.igem.org/peertube/streaming-playlists/hls/d224ccf9-ed35-478a-a317-c6f29ac33f75/8d82c465-8a8e-44ff-ad6e-ffd946ed6978-master.m3u8https://video.igem.org/videos/embed/rX4Wpdr6mxWbN24oj6PLSa10310412020-10-30T07:19:13.072ZUnitedStatesNorthAmericaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/fZMfYsGT5xN16p3LTTdaHQhttps://video.igem.org/lazy-static/thumbnails/24ebc338-6634-48f7-8979-5d497c9780a6.jpgUNSW_Australia: PROTECC Coral (2020) - Team Presentation [English]**Title:** PROTECC (Prevent Reactive Oxygen and Thermal Extreme Caused Carking) Coral **Abstract:** Home to three-quarters of the world's coral population, Australia's Great Barrier Reef (GBR) is experiencing its third bleaching event in five years. With increasing ocean temperatures, coral reefs and the ecosystems that depend on them are at risk of serious, irreversible damage. Coral bleaching is a result of heat-induced oxidative stress, which triggers the ejection of corals' microalgal-symbiont Symbiodinium spp. PROTECC Coral aims to improve the heat tolerance of coral by introducing small heat shock proteins alongside a glutathione recycling enzyme system into Symbiodinium spp., in order to reduce cellular stress. By engaging in conversations with various stakeholders (tourism industries, local councils, bioprospecting practices, commercial and recreational fishing and the GBR's traditional owners) and integrating their advice, our team hopes to contribute to a worldwide conservation effort that enables future generations, both Australian and non-Australian alike, to enjoy the GBR in its entirety. [Wiki](https://2020.igem.org/Team:UNSW_Australia) | [Project Promotion](https://video.igem.org/videos/watch/419f1b87-a827-4138-a85f-5cd60d65c820)https://static.igem.org/peertube/streaming-playlists/hls/79713a3b-1158-4040-9c22-ccf450a483ae/9f374b06-6e99-4fbd-a04f-041bdc794d3a-master.m3u8https://video.igem.org/videos/embed/fZMfYsGT5xN16p3LTTdaHQ104607022020-10-30T09:14:09.673ZAsiaAustraliaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/sD4bDG7KiUn5Nbkda2WTFphttps://video.igem.org/lazy-static/thumbnails/8c7232d2-17d7-4987-b18a-13d8dba0ca37.jpgDTU-Denmark: RESHAPE (2020) - Team Presentation [English]**Title:** RESHAPE: Tuning morphology and secretion in Aspergillus niger for improved industrial applications **Abstract:** Every week, almost 6 billion people use products made with the aid of fungal cell factories. Many of these fungi stem from the Aspergillus genus. We aim to improve the production efficiency of Aspergillus niger by creating a synthetic biology toolbox that focuses on mycelial morphology and secretion. Morphology has a significant effect on productivity of certain compounds, while proper secretion is important for later recovery and purification of a compound. We have approached our goal in three ways: 1) Characterising morphological changes of A. niger by engineering seven morphology related genes. 2) Establishing a computational model of mycelium growth based on imaging data. 3) Developing a library of native and synthetic signal peptides for protein secretion. By improving the efficiency of bio-based production processes, we can improve the economic incentive to use them, and decrease our heavy reliance on oil-based substrates in the chemical industry. [Wiki](https://2020.igem.org/Team:DTU-Denmark) | [Project Promotion](https://video.igem.org/videos/watch/783218d4-be53-4926-999a-a117e0b9c70d)https://static.igem.org/peertube/streaming-playlists/hls/d7ba162c-ffff-4290-ba6c-071abd3d1bb9/f1c43678-ed63-48dd-8471-27409f1ba006-master.m3u8https://video.igem.org/videos/embed/sD4bDG7KiUn5Nbkda2WTFp116701362020-10-30T07:59:39.468ZDenmarkEuropeManufacturingYES2020 Team PresentationsNOhttps://video.igem.org/w/1bbGgZBMcjLjJZAeJGukmNhttps://video.igem.org/lazy-static/thumbnails/7188c09b-ac8d-4861-9d1b-d15418b9cd11.jpgPYMS_GZ_China: Too Much Infection: general assay platform to test infectivity of... (2020) - Team...**Title:** Too Much Infection: general assay platform to test infectivity of current and future SARS-CoV-2 strains **Abstract:** Traditionally, measuring the infectivity of SARS-CoV-2 requires a live virus which creates serious biosafety concerns. We wanted to create a safe alternative, utilizing a general assay system, to identify the infectivity of different current and future strains of SARS-CoV-2, as it is critical for assessing outbreak control and immunity of potential vaccines. Infectivity of different strains can be measured by the binding affinity between the receptor-binding domain (RBD) of Spike protein (S protein) and its human ACE2 receptor, which is how the virus gains entry into human cells. Various genetic mutations in the S protein affect the RBD-ACE2 interaction, therefore contributing to different infectivities. We engineered a pseudovirus to recap this crucial interaction by expressing S proteins corresponding to the original and the predominant G614D SARS-CoV-2 strains and used a luciferase assay to quantitatively measure infectivity. [Wiki](https://2020.igem.org/Team:PYMS_GZ_China) | [Project Promotion](https://video.igem.org/videos/watch/97646a76-b216-4711-a4bd-1c825e05fd40)https://static.igem.org/peertube/streaming-playlists/hls/016c0742-dcd7-4b07-b1d6-3017c8d3ccc2/e7f0f51a-f821-4cd9-a4bc-208aa0ab4d43-master.m3u8https://video.igem.org/videos/embed/1bbGgZBMcjLjJZAeJGukmN10150262020-10-30T07:53:02.322ZHighSchoolChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/hcE2yn9hF3WSBDnUTfjsJLhttps://video.igem.org/lazy-static/thumbnails/ef9fd8da-060a-41d1-8b85-6af26c69cba2.jpgUIUC_Illinois: Viralizer (2020) - Team Presentation [English]**Title:** Viralizer - Modeling Covid-19 mutations and binding energies to design potential antibodies **Abstract:** Covid-19 is caused by the SARS-CoV-2 virus, a highly mutative virus for which developing effective antibodies is difficult. Thousands of spike protein mutations have been detected but fewer than 1% of them have solved crystal structures. To address this shortage, we created Viralizer: an interactive online database that contains over 26,000 mutated spike protein sequences and their corresponding structures, developed using homology modeling in PyRosetta. This allows the user to analyze the effects of spike protein mutations on the functionality of the protein and its binding with potential antibodies. The spike protein database is paired with a phylogenetic tree that characterizes the propagation of the virus over space and time. We also developed a genetic algorithm that uses spike protein structures and their binding energies to design hundreds of potential antibodies that bind to the spike protein and reduce its binding affinity to the ACE-2 receptor on cells. [Wiki](https://2020.igem.org/Team:UIUC_Illinois) | [Project Promotion](https://video.igem.org/videos/watch/2b4447a1-1a4e-4a4e-a84b-46f7649e307f)https://static.igem.org/peertube/streaming-playlists/hls/8332d5bd-139c-4a87-b473-8fdd382ec868/87efcb30-779c-4353-9960-ef824f851dea-master.m3u8https://video.igem.org/videos/embed/hcE2yn9hF3WSBDnUTfjsJL11120342020-10-30T08:11:09.366ZUnitedStatesNorthAmericaSoftwareYES2020 Team PresentationsNOhttps://video.igem.org/w/roShdcXUXHyHQbgDEQhuQShttps://video.igem.org/lazy-static/thumbnails/15b0ea5b-051d-4867-a316-e297b0442c52.jpgDNHS_SanDiego_CA: PreeclampsiRNA (2020) - Team Presentation [English]**Title:** PreeclampsiRNA: Degrading sFlt1-14 mRNA with shRNA via lentiviral vectors to treat preeclampsia **Abstract:** Preeclampsia is a dangerous condition, characterized by high blood pressure during pregnancy. It affects many pregnancies globally, and although most women survive preeclampsia, untreated it can lead to severe complications, and even death. Despite extensive research, there is, unfortunately, no reliable treatment for preeclampsia. The goal of this project is to produce an effective theoretical siRNA treatment, PreeclampsiRNA, using recombinant lentiviral vectors to carry and deliver shRNA to the trophoblast to inhibit the translation of soluble Fms-like tyrosine kinase (sFlt1-14), an antiangiogenic pseudo-receptor that captures placental growth factor (PlGF) and prevents it from binding the proper receptor, which would signal for angiogenesis. We would test several different shRNA sequences to see which causes the most effective reduction of sFlt1-14. By degrading the mRNA of sFlt1-14 using siRNA, we aim to reduce the placental levels of this molecule (which is overproduced in preeclamptic patients, leading to hypertension) and thus alleviate symptoms. [Wiki](https://2020.igem.org/Team:DNHS_SanDiego_CA) | [Project Promotion](https://video.igem.org/videos/watch/dceea871-bd9e-4060-89d0-539f05526bf2)https://static.igem.org/peertube/streaming-playlists/hls/cda5d0b5-f9eb-46b0-9704-6aff30b8e902/0a252c6e-b54a-4d0c-8c3f-ee0a7594f69b-master.m3u8https://video.igem.org/videos/embed/roShdcXUXHyHQbgDEQhuQS119801532020-10-30T08:04:51.050ZUnitedStatesNorthAmericaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/9o2fxTWSMcEge3oaXUQdgHhttps://video.igem.org/lazy-static/thumbnails/b51b248c-5ae5-477b-b446-7051f88090a7.jpgJiangnan_China: Fine tuning sophorolipids by CRISPR/Cas9 to treat cyanobacteria (2020) - Team Pre...**Title:** Sophorolipid: Biosynthesis of fine-tuned acid/ lactone ratio in Starmerella bombicola based on CRISPR/Cas9 **Abstract:** Cyanobacteria blooms have gradually evolved into a global problem of water pollution. Sophorolipid, an eco-friendly biosurfactant, can degrade cyanobacteria effectively. Acid sophorolipids have better surfactant activity and lactone sophorolipids have better bacteriostatic effect. However, the sophorolipids produced by wild-type Starmerella bombicola are random mix of these two types. To obtain the higher yield of sophorolipid and combine the advantages of these two types, Jiangnan_China constructed a CRISPR/Cas9 gene-editing system in Starmerella bombicola to over-express UDP-glucosyltransferase B (UGTB) and adjust the lactonase (SBLE) expression level by using different promoters. Finally, a recombinant strain consistent with our expectation was constructed and produces sophrolipids with appropriate ratio that achieves the maximum efficiency of degrading cyanobacteria. [Wiki](https://2020.igem.org/Team:Jiangnan_China) | [Project Promotion](https://video.igem.org/videos/watch/681ab7de-7703-49d5-967d-9b47117373d8)https://static.igem.org/peertube/streaming-playlists/hls/43dc3e3b-2996-4dc0-8494-d8d592f2849f/41faac4b-5bdd-4028-a925-c0b415adcd11-master.m3u8https://video.igem.org/videos/embed/9o2fxTWSMcEge3oaXUQdgH97101262020-10-30T09:35:13.717ZChinaAsiaManufacturingYES2020 Team PresentationsNOhttps://video.igem.org/w/uquia5zgCfDMCS6ZDxZWemhttps://video.igem.org/lazy-static/thumbnails/28777d28-9b17-482f-997d-34dcb81eb422.jpgImperial_College: SOAP Lab (2020) - Team Presentation [English]**Title:** SOAP Lab: Automating DNA Design & Assembly **Abstract:** DNA assembly is a vital first step in most synthetic biology projects. As genetic design spaces become larger with more complex genetic circuits and greater diversity of parts, the ability to construct sizable genetic libraries with high accuracy in a cost and time-efficient manner is imperative. While automation is an attractive and increasingly affordable solution, programming remains a technical challenge for many wet-lab scientists. To make automated workflows a practical reality, we developed SOAP Lab, an open-source web UI that infers genetic circuit designs from SBOL data files and customizes an assembly plan based on the user's specifications. This is then used to generate ready-to-run scripts for the liquid handlers, along with set-up instructions and logs for traceability and debugging. SOAP Lab is integrable into larger software pipelines through the use of SBOL data standards, empowering labs with access to a wider suite of tools available for computer-aided biology. [Wiki](https://2020.igem.org/Team:Imperial_College) | [Project Promotion](https://video.igem.org/videos/watch/dd7842e8-38be-45d6-8375-594716834601)https://static.igem.org/peertube/streaming-playlists/hls/e62b2bbd-f7b8-4d2d-ba61-7247a03edf56/3ad0145f-7193-48f2-8a5b-0face77b9ae7-master.m3u8https://video.igem.org/videos/embed/uquia5zgCfDMCS6ZDxZWem120001172020-10-30T08:34:33.270ZUnitedKingdomEuropeSoftwareYES2020 Team PresentationsNOhttps://video.igem.org/w/oM66qzdmEQKeiYECM3c6tbhttps://video.igem.org/lazy-static/thumbnails/0e364509-df2d-4889-893c-102db49cbab2.jpgExeter: CalcifEXE (2020) - Team Presentation [English]**Title:** CalcifEXE: A Bacterial Method of Calcium Carbonate Precipitation **Abstract:** Traditional calcium carbonate production methods emit large amounts of carbon dioxide as well as many toxic compounds due to the reliance on fossil fuels in the manufacturing process. Our team is developing a novel precipitation method using bacteria engineered with enzymes capable of producing the carbonate ions required for precipitation of calcium carbonate. One enzyme we are focusing on is carbonic anhydrase (CA), an enzyme that facilitates the interconversion of carbon dioxide and bicarbonate in solution. CA should not only increase carbonate production, but also allow for atmospheric carbon dioxide to be used as the feedstock for the carbonate ions. Our method has the potential capability to be employed with a 3D-bioprinter that will print structures comprising a hydrogel and our engineered bacteria. On precipitation the calcium carbonate should take the shape of the hydrogel structure. One potential application, is the production of coral backbones used to facilitate coral regrowth. [Wiki](https://2020.igem.org/Team:Exeter) | [Project Promotion](https://video.igem.org/videos/watch/f3c28b4c-ec8f-4fe5-b01b-59d98332234e)https://static.igem.org/peertube/streaming-playlists/hls/b874a8be-8fbf-4429-b90e-9be927989cd4/7cc14c56-a7ef-4bb6-b1bc-496313d48b46-master.m3u8https://video.igem.org/videos/embed/oM66qzdmEQKeiYECM3c6tb10220482020-10-30T08:50:47.691ZEnvironmentEuropeUnitedKingdomYES2020 Team PresentationsNOhttps://video.igem.org/w/jQHwW2CPGr1TGMJ1AxdLnxhttps://video.igem.org/lazy-static/thumbnails/c9c80715-0603-4c77-88ce-9478c0bfcde8.jpgCalgary: Oviita (2020) - Team Presentation [English]**Title:** Oviita: A Community-Based Approach to Vitamin A Deficiency **Abstract:** As a leading global cause of preventable blindness and mortality, vitamin A deficiency (VAD) is a serious health problem, particularly in developing regions. Oviita aims to equip these vulnerable regions with a sustainable and community-based solution to VAD. Our solution uses a food-safe strain of Yarrowia lipolytica modified to produce beta-carotene, a Vitamin A precursor. By engineering this yeast to produce cellulase, VAD communities can grow it as their own vitamin A supplement using readily-available plant matter as feedstock. To facilitate community integration, we designed bioreactor schematics based on locally-available resources, and made the yeast auxotrophic to ensure safe growth with no environmental risk. We also created a Vitamin A biosensor to improve VAD testing, and included an anthelmintic agent in the yeast to combat poor intestinal health, two contributing factors to VAD. Through these solutions, Oviita aims to be a sustainable and community-based adjunct to global efforts against VAD. [Wiki](https://2020.igem.org/Team:Calgary) | [Project Promotion](https://video.igem.org/videos/watch/741a26c8-d1e3-423a-83d0-74fb89958d01)https://static.igem.org/peertube/streaming-playlists/hls/9891caea-e3db-4d84-b759-36c72e756721/8309e75b-4ca6-4898-bd64-a7315884cd59-master.m3u8https://video.igem.org/videos/embed/jQHwW2CPGr1TGMJ1AxdLnx119102792020-10-30T09:15:43.920ZCanadaNorthAmericaFood&NutritionYES2020 Team PresentationsNOhttps://video.igem.org/w/ueyq9aG3ckrN4otd3hmwywhttps://video.igem.org/lazy-static/thumbnails/015a59c4-be1f-4cbf-896b-f5d81d72959d.jpgStanford: SEED (2020) - Team Presentation [English]**Title:** SEED: Self-replicating Embedded Environmental Diagnostic **Abstract:** The Stanford iGEM team is engineering a customizable nucleic acid diagnostic that can be performed with Bacillus subtilis, a GRAS gram-positive bacteria. Our goal is to create persistent environmental nucleic acid surveillance by taking advantage of the natural competence found in B. subtilis. In the presence of a target nucleic acid sequence cells will produce a visible signal through two detection systems. The first approach uses RNA toeholds, composed of an RNA hairpin complementary to the target sequence and a reporter protein that produces a visual readout in the presence of the target. The second approach uses B. subtilis' recombination system to remove a negative selection marker in the B. subtilis genome flanked by regions of homology to the sequence of interest. The goal of this project is to create a diagnostic system that will help address future viral testing shortages by leveraging the natural scalability of cellular systems. [Wiki](https://2020.igem.org/Team:Stanford) | [Project Promotion](https://video.igem.org/videos/watch/21e2c8ac-cb6d-4430-b0ba-10098a1b19df)https://static.igem.org/peertube/streaming-playlists/hls/e4a48758-98a8-4444-9dec-40aaff795376/f864aaf0-caed-4142-9245-3572efb50538-master.m3u8https://video.igem.org/videos/embed/ueyq9aG3ckrN4otd3hmwyw120001052020-10-30T10:39:09.986ZNorthAmericaDiagnosticsUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/1rJLD4AY8TRgmECZYmm1Qnhttps://video.igem.org/lazy-static/thumbnails/6d7fd750-0c35-4fdc-8642-de935f551706.jpgBrno_Czech_Republic: CYANOTRAP (2020) - Team Presentation [English]**Title:** CYANOTRAP **Abstract:** CYANOTRAP is a synthetic biology system developed to lyse cyanobacteria and degrade their toxins. The host bacterium Bacillus subtilis will be immobilized on a cellulose matrix in a flow through device. It will also produce a collection of extracellular protein complexes attached to its cell wall based on the naturally occurring structures called cellulosomes. These structures will display enzymes carrying out the functions mentioned above. In the first step of our project, we aimed to immobilize the engineered cells on cellulose microbeads. For this we used a synthetic gene containing a cellulose binding module connected by a linker to LysM domain, anchoring the fusion protein to the cell wall of the host organism. We've carried out a number of experiments including cloning of the synthetic gene into a target plasmid, integrating the plasmid into the chromosome of Bacillus subtilis, cultivating the engineered cells, producing and testing the synthetic protein. [Wiki](https://2020.igem.org/Team:Brno_Czech_Republic) | [Project Promotion](https://video.igem.org/videos/watch/1f60e0de-5814-4c59-b6bb-5493c67d78d8)https://static.igem.org/peertube/streaming-playlists/hls/0397f3b4-b14b-467d-8006-da3e33319695/a95c361f-dfbd-4c2a-b5f0-5182f6c735d4-master.m3u8https://video.igem.org/videos/embed/1rJLD4AY8TRgmECZYmm1Qn119702772020-10-30T13:14:09.227ZCzechRepublicEuropeEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/wBRGjgBAZurRcfRzoKGMPPhttps://video.igem.org/lazy-static/thumbnails/3c6a3efa-a8dc-4bb8-b691-51047c81160d.jpgUCSC: Komaplastics (2020) - Team Presentation [English]**Title:** Komaplastics: Creating a biodegradable bed mulch from bacterial cellulose **Abstract:** Plastic bed mulch films are an essential agricultural tool; they limit fumigant emissions, provide UV and water resistance, prevent weed and pest growth, and maximize crop yield. However, current disposal methods are unsustainable; the majority of bed mulches are dumped into landfills, degrade into harmful chemicals, and pollute local communities. Komaplastics will lay the foundation for creation of a biodegradable bed mulch from bacterial cellulose (BC) produced by Komagataeibacter rhaeticus. BC is highly crystalline due to hydrogen bonding between hydroxyl groups of adjacent strands which is a barrier to homogenous incorporation of plasticizing molecules. Thus, we investigated carbohydrate-binding modules (CBMs) for their potential to disrupt these hydrogen bonding networks and facilitate addition of plasticizing molecules. We also tested various compounds for their ability to plasticize chemically decrystallized BC. Our work will provide a scaffold for the development of a cellulose-based biodegradable plastic bed mulch film produced in a biological system. [Wiki](https://2020.igem.org/Team:UCSC) | [Project Promotion](https://video.igem.org/videos/watch/f388a0bb-0d50-4f46-b377-f9bc6c63505b)https://static.igem.org/peertube/streaming-playlists/hls/f7f3d143-6403-416b-8783-e6dec4116699/91fa9a1b-10d5-40d5-a99f-e630a293c5ec-master.m3u8https://video.igem.org/videos/embed/wBRGjgBAZurRcfRzoKGMPP9140762020-10-30T09:19:22.496ZUnitedStatesEnvironmentNorthAmericaYES2020 Team PresentationsNOhttps://video.igem.org/w/6JXa6ZBACVuRevU5MKvTpWhttps://video.igem.org/lazy-static/thumbnails/83d0a890-2d24-4709-979c-899faa960971.jpgGrenoble_Alpes: PyoBusters (2020) - Team Presentation [English]**Title:** Innovative biotreatment for P.aeruginosa biofilm infections using an engineered E.coli **Abstract:** We aimed at conceiving an engineered e.coli able to sense P.aeruginosa's biofilm and settle on it. Then, thanks to a synchronized lysis system, therapeutic molecules will be released to destroy P.aeruginosa and its biofilm. Our bacteria named Pyobusters works thanks to a complex genetic network based on the quorum sensing and designed by our biologists. To test the effectiveness of our therapeutic , our engineers conceived a testing bench able to emulate the different infection sites of P.aeruginosa. This way, we can monitor our therapeutic bacteria and train themselves in diverse fields.¬† We succeeded in building a functional testing bench and delivered proofs of concept for several pieces of our genetic network.¬† Further experiments and researches will be needed to test and unveil the full potential of our innovative treatment. [Wiki](https://2020.igem.org/Team:Grenoble_Alpes) | [Project Promotion](https://video.igem.org/videos/watch/6a28e00b-5d9f-4ce3-80dd-d8294c0fff60)https://static.igem.org/peertube/streaming-playlists/hls/2e7cec5e-bd32-4b3c-9b4d-7214cc5eb6f0/a73e3e78-c353-459e-8b7a-a0db0b2672dc-master.m3u8https://video.igem.org/videos/embed/6JXa6ZBACVuRevU5MKvTpW100604532020-10-30T09:40:04.999ZTherapeuticsEuropeFranceYES2020 Team PresentationsNOhttps://video.igem.org/w/fLFc8scFWWMHsTWEjWfsyBhttps://video.igem.org/lazy-static/thumbnails/966b30ae-933a-4dd5-97d2-5cc8eb894be3.jpgSZU-China: Blueism (2020) - Team Presentation [English]**Title:** Blueism - A novel eco-friendly scheme for jeans dyeing and washing **Abstract:** Producing every ton of jeans will pollute 200 tons of water due to the discharged 2500 toxic chemical substances, causing catastrophic effects on the environment. What's worse, in South China's Pearl River Delta, the use of traditional methods for jeans fraying such as strong corrosive chemical reagents and sandblasting cause irreversible damage to the workers' health. This year we designed an eco-friendly, efficient system for jeans factory. Our system includes two parts. In the first part, we produced thermostable beta-glucosidase via recombinant E.coli to synthesize Gardenia Blue, a stable, environmental friendly pigment with high dyeing efficiency. After dyeing, we used recombinant cellulase (endo-glucanase) for fraying in replacement of the stone-washing process. Besides, we designed a hardware to adjust our products to jeans manufacturing process. In brief, our automatic green system can replace manual dyeing and fraying process, while reducing pollution and protecting the health of workers. [Wiki](https://2020.igem.org/Team:SZU-China) | [Project Promotion](https://video.igem.org/videos/watch/180033f9-a5fc-4899-a36d-3fa73ecf1f39)https://static.igem.org/peertube/streaming-playlists/hls/779cd1e9-6dc7-40a8-a764-0f02bbd1195b/1595c09d-aeba-4308-996c-d327e1c7261b-master.m3u8https://video.igem.org/videos/embed/fLFc8scFWWMHsTWEjWfsyB10590902020-10-30T09:58:47.368ZChinaAsiaManufacturingYES2020 Team PresentationsNOhttps://video.igem.org/w/pXz7UMbow1kK8FpgeLKo3Jhttps://video.igem.org/lazy-static/thumbnails/b737cfa0-79ec-4cb1-924b-9da1f30151b1.jpgMSP-Maastricht: The battle against the OPC (2020) - Team Presentation [English]**Title:** MSP-Maastricht combating the OPC invasive species with Oak Shield, a biological pesticide **Abstract:** In the past few decades, the Oak Processionary Caterpillar (OPC) has spread towards Northern parts of Europe, far from its natural southern predators. This invasive species is noxious for oaks trees but also dangerous for animals and humans due to its toxic bristle. Therefore, this year's MSP-Maastricht iGEM team has decided to join the fight against the OPC. Our aim is to provide an eco-friendly pesticide - Oak Shield - specifically targeting the caterpillar as current pesticides harm other insects. We identified potential target sequences unique to the OPC genome and planned to modify bacteria to make them produce interfering RNA complementary to those sequences. Algorithms allowed us to estimate the decrease in population. Prior to Oak Shield we started Geneducation, a YouTube channel focusing on the popularization of syn-bio and genetic engineering. Additionally, we launched a proceedings journal for iGEM teams, containing peer-reviewed articles from more than 30 teams! [Wiki](https://2020.igem.org/Team:MSP-Maastricht) | [Project Promotion](https://video.igem.org/videos/watch/74282bd9-81b5-4a59-a269-08a4d28c81dc)https://static.igem.org/peertube/streaming-playlists/hls/c20481c5-bcf5-4f6c-a2ff-0db6eacece8e/f7ad0033-3026-4416-8f3b-90422496c08e-master.m3u8https://video.igem.org/videos/embed/pXz7UMbow1kK8FpgeLKo3J11450772020-10-30T10:16:51.607ZEnvironmentEuropeNetherlandsYES2020 Team PresentationsNOhttps://video.igem.org/w/paRSLpE6VbZGe88oLXtr7Uhttps://video.igem.org/lazy-static/thumbnails/6a4f01fe-a164-45ec-ba9a-e09a6077cad3.jpgQueens_Canada: Velcrion (2020) - Team Presentation [English]**Title:** Velcrion - A transdermal biosensor to detect critical metabolites in chronic kidney disease. **Abstract:** Team Queens_Canada will be designing a novel transdermal biosensor for point-of-care diagnostic quantification of phosphate, potassium, parathyroid hormone (PTH) and fibroblast growth factor 23 (FGF23) for chronic kidney disease (CKD) patients. Knowledge of the concentration of these analytes is critical for guiding effective treatments and improving patient outcomes. We will generate genetically encoded F√∂rster resonance energy transfer (FRET) sensors by fusing the N- and C-termini of phosphate-binding protein (PBP), potassium-binding protein (KBP), PTH 1 receptor (PTH1R), and Œ±-Klotho to fluorescent proteins (FPs). To quantify physiologically relevant levels of phosphate, potassium, PTH and FGF23, highly optimized mNeonGreen and mCherry will be used as the FPs. Site-directed mutagenesis will be employed on protein-fluorophore constructs to add a Cysteine residue, to which a glutamate (E)/ lysine (K) coiled-coil system will be added to immobilize the construct onto a microfluidic surface. Through frequent monitoring and early disease detection, we hope to revolutionize CKD diagnostics. [Wiki](https://2020.igem.org/Team:Queens_Canada) | [Project Promotion](https://video.igem.org/videos/watch/8944b985-a81f-4914-ac93-76ceb513b0c6)https://static.igem.org/peertube/streaming-playlists/hls/bba29ead-a1bb-4386-bcaf-fcf8e6cc263c/3441a719-591f-49be-9123-fa6b5898f2bc-master.m3u8https://video.igem.org/videos/embed/paRSLpE6VbZGe88oLXtr7U11990572020-10-30T09:43:38.235ZCanadaNorthAmericaDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/iWRF7fAWdqshunWEkA84qAhttps://video.igem.org/lazy-static/thumbnails/95850cef-3019-423d-91d7-4babc4e23da6.jpgUUlm: Biodegradation of Polystyrene on the basis of Genetically Modified Intesti... (2020) - Team...**Title:** Biodegradation of Polystyrene on the Basis of Genetically Modified Intestinal Bacteria of Tenebrio molitor larvae **Abstract:** Polystyrene is one of the most abundant plastics on earth and often ends up in large quantities in our environment. Sustainability is our central credo and we present a new approach of biodegrading polystyrene with the help of genetically modified bacteria introduced into the intestines of mealworms (Tenebrio molitor larvae). Previously, it has been shown that these larvae can use polystyrene foam as sole carbon source, thus it is a biodegradable substance. We designed a recombinant Escherichia coli strain capable of converting acetyl-CoA to acetone. The genetic modifications intend to integrate a plasmid carrying several genes of the ABE fermentation. We want to have acetone produced by bacteria in the intestines of the larvae. Here, it is supposed to help breaking down the plastic, because acetone can dissolve polystyrene. Acetone intercalates in between the polymer chains and increases the surface area that can be attacked by the bacteria. [Wiki](https://2020.igem.org/Team:UUlm) | [Project Promotion](https://video.igem.org/videos/watch/afbaf16b-05b3-4315-9e98-2a8350e8192b)https://static.igem.org/peertube/streaming-playlists/hls/91542237-651d-428a-ab7f-b3b7f780fc96/e8e49296-c1e6-4034-9601-64108b4307d0-master.m3u8https://video.igem.org/videos/embed/iWRF7fAWdqshunWEkA84qA9330462020-10-30T09:50:03.064ZGermanyEuropeEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/5fsyrENPcFc5Co6MsazdEVhttps://video.igem.org/lazy-static/thumbnails/0cb51751-bade-4e84-86af-4b74115f445a.jpgFDR-HB_Peru: Fishing for Cadmium (2020) - Team Presentation [English]**Title:** Fishing for Cadmium **Abstract:** Our project seeks to tackle the issue of cadmium contamination in fishmeal. We chose this issue because it affects the health of humans, ecosystems, and our local economy. To tackle this issue we have designed a plasmid capable of detecting the concentration of cadmium in blended fish. We have plans to implement a cell free system to make our solution more accessible to fishermen as well as an affordable heated shaking incubator to make the culturing of bacteria easier. Lastly, we have taken strides to make science education more accessible for young adults in Peru, by creating videos, evaluating articles for a young science journal, and subtitling our previous TEDx talk. [Wiki](https://2020.igem.org/Team:FDR-HB_Peru) | [Project Promotion](https://video.igem.org/videos/watch/037b7f90-59da-4cbc-8abe-f1622f8135dd)https://static.igem.org/peertube/streaming-playlists/hls/226955cf-eaf5-4ec8-86bb-2686e4a2d139/99055c9d-efb4-446e-b72a-f4f88421447e-master.m3u8https://video.igem.org/videos/embed/5fsyrENPcFc5Co6MsazdEV10310352020-10-30T11:05:38.710ZLatinAmericaPeruHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/gMQYxWUWaTTbvqHicfL6Tshttps://video.igem.org/lazy-static/thumbnails/b0ceaf49-0ade-408b-a22a-b522fdbc95eb.jpgRochester: Creation of a Novel, Noninvasive Diagnostic for Endometriosis using M... (2020) - Team...**Title:** Creation of a Novel, Noninvasive Diagnostic for Endometriosis using Menstrual Effluent **Abstract:** The 2020 University of Rochester iGEM Team, Team UteRus, created a novel, non-invasive diagnostic for endometriosis using menstrual effluent (ME). Endometriosis is a chronic disease, affecting 200 million women worldwide, that causes abnormal endometrial-like tissue growth outside of the uterine cavity. The only diagnostic available is exploratory surgery. Our team created lateral flow immunoassays (LFA) that can qualitatively and quantitatively measure the presence of endometriosis biomarkers in ME and built a model to optimize the assay design. Using a Plug and Play approach, our team designed plasmids for antibody production in SHuffle stain Escherichia coli and reduced the cost of our diagnostic. Additionally, we created menstrual cups best suited for the comfort of endometriosis patients as well as inexpensive laboratory equipment for clinics without laboratory access. Our team also built a predictive model that we integrated into a software tool as an endometriosis diagnostic based solely on clinical variables. [Wiki](https://2020.igem.org/Team:Rochester) | [Project Promotion](https://video.igem.org/videos/watch/4f0667f2-9d56-4ecd-a8d1-1f5ef5091589)https://static.igem.org/peertube/streaming-playlists/hls/7fdfbb41-ea36-4812-b798-41df13d883bc/68607efe-f2e9-4eb6-b8ff-72b460e86488-master.m3u8https://video.igem.org/videos/embed/gMQYxWUWaTTbvqHicfL6Ts119901272020-10-30T10:00:41.787ZDiagnosticsNorthAmericaUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/hynSwkbHsG6nwE4pLXQo9whttps://video.igem.org/lazy-static/thumbnails/c84068e0-6fa1-4d2f-ad81-62857ff6e9f6.jpgUZurich: Plant Immunity based Biosensing (2020) - Team Presentation [English]**Title:** Plant Immunity based Biosensing **Abstract:** Bacterial contamination in water is a global issue that affects developing nations and first world countries. Even Switzerland, famed for its drinking water, faces over 400 cases of Legionnaires disease annually. But plants have been combating microbial pathogens for far longer than humans and we believe there is a lot to learn from them. That is why we are developing a biosensor based on plant pattern-recognition receptors (PRRs), which are cell surface receptors of the plant immune system, that dimerize in the presence of microbes. We designed a system based on EFR, FLS2, CORE and their coreceptor BAK1, which recognize a broad spectrum of bacteria. We fused a split-luciferase to our receptors in order to quantify the total bacterial load of a water sample based on the luminescence-output. We achieved the expression of PRRs in yeast, which opens the door to future applications of PRRs as biosensors. [Wiki](https://2020.igem.org/Team:UZurich) | [Project Promotion](https://video.igem.org/videos/watch/a3f630b8-8470-4c38-9937-a664519685ff)https://static.igem.org/peertube/streaming-playlists/hls/86177f6b-8fb6-4ebf-bb3f-fb51e5214db6/67a01695-a39b-4c5e-80a1-c5e276470431-master.m3u8https://video.igem.org/videos/embed/hynSwkbHsG6nwE4pLXQo9w11580692020-10-30T10:11:56.758ZSwitzerlandNewApplicationEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/qxH3p9JeGJWF7QBZzNQz4Thttps://video.igem.org/lazy-static/thumbnails/75046fcb-38cb-4aa0-b3d8-2a3fdc8d1ab8.jpgLethbridge: FriGEM (2020) - Team Presentation [English]**Title:** FriGEM ® Engineering Potatoes to Express Antimicrobial Peptides for Agriculture and Human Health **Abstract:** Fusarium is a fungus causing dry rot in potatoes on the field and during storage. We want to express AMPs within the potato plant to provide a biological control of Fusarium. We also want to engineer E. coli to produce the desired AMPs instead and apply them on the plants/tubers.This would have the advantage that the potatoes are not GMOs. Additionally, we want to address human health and the negative perception of GM food. We want to produce AMPs that also enhance the potatoes nutritional value and health effects. AMPs useful against Fusarium may also have effects against human pathogens, making their ingestion beneficial. One example is the bovine AMP BMAP-18, which has antimicrobial effects against trypanosoma, the cause of sleeping sickness. By creating GMOs with beneficial effects for consumers, we hope to alleviate the stigma of GM food and increase its public acceptance. [Wiki](https://2020.igem.org/Team:Lethbridge) | [Project Promotion](https://video.igem.org/videos/watch/5c30e5df-e5ed-42bd-a72c-170c96f7d28a)https://static.igem.org/peertube/streaming-playlists/hls/c6c8ad66-c401-40e7-a832-2f54bbaec845/4d8ae9f2-3b13-4ede-87cd-240c2cdeeba3-master.m3u8https://video.igem.org/videos/embed/qxH3p9JeGJWF7QBZzNQz4T9500492020-10-30T10:17:16.506ZFood&NutritionNorthAmericaCanadaYES2020 Team PresentationsNOhttps://video.igem.org/w/mwecojrvRzSXr2KJikaG8Dhttps://video.igem.org/lazy-static/thumbnails/f86b156e-4a7c-4ba9-9c69-8305f85cae6a.jpgShanghai_SFLS_SPBS: Not hair die, hair DYE (2020) - Team Presentation [English]**Title:** Not hair die, hair DYE: Biosynthesis of natural hair dyes with engineered bacteria **Abstract:** Hair-dyeing is becoming increasingly popular, and the demand for harmless dyes is constantly rising. However, more common synthetic dyes may damage the hair cortex and cause allergies. Despite increasing attention to natural dyes, its production is limited and products are expensive. We propose using engineered bacteria to mass-produce natural, harmless hair dyes. We successfully synthesized melanin, indigo, dopaxanthin, and indoline-betacyanin and dyed hair into black, blue, and red. We used Vibrio natriegens to increase the rate of production. V. natriegens could produce melanin faster than E. coli. Furthermore, considering that synthetic dyes are composed of oxidants and pigment precursors, we envisage combining oxidases and pigment precursors to dye hair. We have expressed bacterial laccase and tested its activity. Next, we will try to optimize dyeing protocols and discuss the safety aspects of potential products. If successful, our products could bring dramatic changes to the market and introduce substantial social benefits. [Wiki](https://2020.igem.org/Team:Shanghai_SFLS_SPBS) | [Project Promotion](https://video.igem.org/videos/watch/5b9c75d5-60ae-4491-ac82-783f501407f4)https://static.igem.org/peertube/streaming-playlists/hls/a62f3803-6adc-4ca4-9875-fa325a6a3393/8e3bc730-0baf-4ddf-a28b-2627b6d45e33-master.m3u8https://video.igem.org/videos/embed/mwecojrvRzSXr2KJikaG8D10130282020-10-30T10:22:29.883ZChinaAsiaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/qkHsfZLz6VfT2HfoUDtNEehttps://video.igem.org/lazy-static/thumbnails/01edd440-c093-44a9-90b9-03c8e3738bfd.jpgBHSF: Khronos: The Timer Yeast (2020) - Team Presentation [English]**Title:** Khronos: The Timer Yeast **Abstract:** When baking at home, people always have their bread over-fermented due to the of experience and disturbance from other matters. However, fermentation is the most important process in baking. Therefore, we came up with the idea of modifying the genes in auxotroph baking yeast to stop fermentation at appropriate times. We designed a circuit based on toggle switch. Before we add the inducer galactose, the switch is kept at 'off' state, where a protein that complements the auxotroph gets to express, after the galactose is added, the switch is turned on by accumulation of the previously repressed gene, the expression of the other gene is then shut down, along with the gene of the complimentary protein, leading to a drop in their concentrations and terminating fermentation over a certain period of time. [Wiki](https://2020.igem.org/Team:BHSF) | [Project Promotion](https://video.igem.org/videos/watch/c6a0d94e-ccea-44ed-9558-36763063149d)https://static.igem.org/peertube/streaming-playlists/hls/c51c0170-9bd6-4582-9cd1-764408951aa9/99ead568-b233-4196-8c00-9b2aabe67aab-master.m3u8https://video.igem.org/videos/embed/qkHsfZLz6VfT2HfoUDtNEe74601252020-10-30T10:36:39.877ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/7xv2fJ4oD6prqVxLHhsutxhttps://video.igem.org/lazy-static/thumbnails/5325b4cc-ab88-4dfe-8066-0888736dcb44.jpgSZPT-CHINA: Tooth’keeper (2020) - Team Presentation [English]**Title:** Toothkeeper--A novel scheme for early diagnosis and care of dental caries **Abstract:** Tooth decay is a chronic disease caused by dental plague turning sugars into acid. The prevalence of tooth decay has been increasing steadily in the past 20 years and gradually becoming a major global health problem. Several research articles signify that Streptococcus mutans is the major pathogen of dental caries. This year the SZPT-CHINA team will present an environment friendly and effective method to solve this problem. We have used synthetic biology methods to design an E. coil detector and a point-of-care test(POCT) device to detect caries, and an antibacterial gum to prevent caries in advance. After using our product, we can prevent dental caries effectively. This product will provide an economical solution and will improve the quality of life. [Wiki](https://2020.igem.org/Team:SZPT-CHINA) | [Project Promotion](https://video.igem.org/videos/watch/274abc81-1ade-43cd-a956-033c1d911a6d)https://static.igem.org/peertube/streaming-playlists/hls/34fcc627-58fe-4cee-96f3-2895da914f5d/8a2946bf-49f8-4e33-8a1d-f90384dd8629-master.m3u8https://video.igem.org/videos/embed/7xv2fJ4oD6prqVxLHhsutx10790412020-10-30T11:19:16.457ZNewApplicationAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/2Me4q32JjBWma8jN6DkYTrhttps://video.igem.org/lazy-static/thumbnails/1681797b-c530-423f-a70b-0ba331170624.jpgQHFZ-China: Super-Serum for Engineered Bacteria (2020) - Team Presentation [English]**Title:** Super-Serum for Engineered Bacteria **Abstract:** Various engineered bacteria showed useful functions. However, the storage of these bacteria usually requires -80‚ÑÉ refrigerators, which substantially limited their transportation and usages in daily life. Therefore, we decided to utilize TDPs from tardigrades (water bears) to supply a new storage method. By introducing the TDPs as the protectants into bacteria during lyophilization (freeze-drying), we could produce dry powder that can be stored at room temperature without any equipment. The powder can be stored at room temperature for a long time, without any usage of professional equipment. This year, we confirmed that certain TDPs have the ability to maintain the survival rate of E. coli. We also optimized the method by regulating the expression level and combining different TDPs. In addition, we proved the modularity and studied the degradation of TDPs after freeze-drying. We hope the method would promote the practical application of engineered bacteria. [Wiki](https://2020.igem.org/Team:QHFZ-China) | [Project Promotion](https://video.igem.org/videos/watch/86c9b0e3-866a-4fb8-bf8a-d61bb6b60f11)https://static.igem.org/peertube/streaming-playlists/hls/0e69a7f7-bc30-40c9-b2ed-6dd4bd0cc96f/56809d41-7148-4b05-af63-bc20808b065b-master.m3u8https://video.igem.org/videos/embed/2Me4q32JjBWma8jN6DkYTr11960432020-10-30T11:27:44.596ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/mKfzAtAsYLqpg9sFgcHXNahttps://video.igem.org/lazy-static/thumbnails/53c615f9-7eff-468b-afb4-0281e71bf8ba.jpgHZNFHS_Hangzhou: Artificial photosynthesis (2020) - Team Presentation [English]**Title:** biological/inorganic hybrid catalysis system for CO2 conversion **Abstract:** CO2 is the main greenhouse gas causing global warming. Using renewable electricity to reduce CO2 to chemicals is a sustainable strategy for greenhouse gas mitigation and renewable electricity storage. To overcome the disadvantages of CO2 electrochemical reduction with inorganic catalysts, developing a biological/inorganic hybrid catalysis system for efficient CO2 conversion is promising. In this study, lycopene will be obtained in the hybrid catalysis system by combining electrochemical hydrogen evolution reaction and biological CO2 conversion with genetically engineered Ralstonia eutropha. In this hybrid catalysis system, bacteria can use CO2 and H2 as substrates to produce lycopene. As a result, CO2 can be transformed to valuable chemicals with electricity input and renewable electrical energy derived from wind and solar energy can be stored as chemical energy simultaneously. [Wiki](https://2020.igem.org/Team:HZNFHS_Hangzhou) | [Project Promotion](https://video.igem.org/videos/watch/286bca49-5d6c-498b-9f56-abb3db0ff2d1)https://static.igem.org/peertube/streaming-playlists/hls/a800bd75-33c4-4305-95ed-275e05799069/537fcb44-b857-4043-9688-400b89bb9785-master.m3u8https://video.igem.org/videos/embed/mKfzAtAsYLqpg9sFgcHXNa9680232020-10-31T09:46:35.559ZAsiaHighSchoolChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/u9cBLzVWjXQgedcBzUDFmVhttps://video.igem.org/lazy-static/thumbnails/dbb4c8b6-d86c-4b8e-87e5-33ce65165bda.jpgSCUT_China: LyDT Phage (2020) - Team Presentation [English]**Title:** LyDT Phage **Abstract:** In this project, we show that a specific gene in the genome of the lytic P. aeruginosa phage vB_PaeM_SCUT-S1 (S1) can be engineered by a CRISPR-Cas editing strategy based on a two-plasmid system, in which the first plasmid expresses a Cas nuclease and recombinases (Œª-red), the second plasmid harbors a crRNA cassette and a repair template. Briefly, we constructed a lysis-deficient phage mutant (LyDT S1) expressing the antibacterial toxin RelE. The mutant was obtained by replacing the gene of holin, a lysis-promoting phage toxin, with the relE gene, which can still inhibit bacterial growth through the expression of RelE but cannot induce cell lysis because the holin gene is eliminated. This is expected to reduce the amount of endotoxins released from the bacteria, with a corresponding reduction of systemic cytokine response and inflammation during bacterial infection. [Wiki](https://2020.igem.org/Team:SCUT_China) | [Project Promotion](https://video.igem.org/videos/watch/748e7542-e769-4252-911b-5d57c4c7df6c)https://static.igem.org/peertube/streaming-playlists/hls/e3e4fddf-2bd6-434e-9c18-2909d8785621/77689c5e-1bc6-4178-81b3-bf0e2586e9ed-master.m3u8https://video.igem.org/videos/embed/u9cBLzVWjXQgedcBzUDFmV11320262020-10-30T11:48:38.031ZChinaTherapeuticsAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/kttXrotS9amvuxNDvYviFuhttps://video.igem.org/lazy-static/thumbnails/f0dcb666-8c98-40f6-b0c5-48a838a8cc7d.jpgWHU-China: The Negotiator (2020) - Team Presentation [English]**Title:** The Negotiator **Abstract:** We aimed at rationally engineering probiotics to address the problem of nosocomial infections in respiratory tract, especially ventilator-associated pneumonia (VAP) during COVID-19 pandemic. The chassis of our project was Escherichia coli Nissle 1917, recognized as the most amenable probiotic, and the target pathogen was Pseudomonas aeruginosa, a representative nosocomial pathogen notorious for its quorum sensing-based virulence behaviours. We constructed two modules to endow our chassis with the capability as 'the negotiator': (i) Quenching Module: heterologously overexpressing quorum quenching enzymes to parley with 'criminals' (P. aeruginosa) by degrading AHLs; and (ii) Sensing Module: sensing PQS and excreting appropriate amounts of chemokines to recruit 'police squads' (immune cells) for eradicating pathogens. Notably, we leveraged E. coli lysate-based cell-free system for rapidly prototyping genetic parts of interest, in order to accelerate the design-build-test-learn cycle of our project as well as to give insights into the elegance of cell-free expression renaissance. [Wiki](https://2020.igem.org/Team:WHU-China) | [Project Promotion](https://video.igem.org/videos/watch/28ed8649-ca2f-4b24-a880-5a4f8c3619a3)https://static.igem.org/peertube/streaming-playlists/hls/9db3f1d9-046b-44f0-adf4-4af41b4472be/891b3435-1ee8-4d03-83cc-4cbe1175577d-master.m3u8https://video.igem.org/videos/embed/kttXrotS9amvuxNDvYviFu10900212020-10-30T11:52:52.469ZChinaAsiaTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/fiPU2JYTB5A8kcWvGq7Umfhttps://video.igem.org/lazy-static/thumbnails/96910e4b-81f8-478d-bae2-0b44b7027122.jpgWorldshaper-Nanjing: Turning Waste into Treasure: Reuse of substandard grains as... (2020) - Team...**Title:** Turning Waste into Treasure: Reuse of Substandard Grains as Fermentation Substrate to Produce Biodiesel **Abstract:** Substandard grains, such as long-term stored grains, cannot be eaten due to the existed toxin and contaminants. Therefore, these grains attracted much attention as the fermentation substrate. Meanwhile, the biodiesel attracted increasing attention as a promising biofuel to replace fossil diesel for the last two decades. In this work, Yarrowia lipolytica has been selected as the model host for biodiesel production. Taking into account the disability to degrade the raw starch of Y. lipolytica, we separately express heterologous alpha‚Äëamylase and glucoamylase enzymes in it. The results showed that the strains expressing glucoamylase were able to grow on starch as the sole carbon source. By optimizing the C/N=100, the total lipid content increases up to 21 % of DCW, which sets up the basis for further studies. In the future, we aim to provide a practical, economical, and environment-friendly method to treat substandard grains and produce biodiesel. [Wiki](https://2020.igem.org/Team:Worldshaper-Nanjing) | [Project Promotion](https://video.igem.org/videos/watch/91d2fa50-303c-41ad-b5cf-a53f44a3c0f8)https://static.igem.org/peertube/streaming-playlists/hls/73dd1a5a-c598-49fc-8d0f-af8764921896/bd84ab44-af1f-4944-b8bf-a3f2767bab9c-master.m3u8https://video.igem.org/videos/embed/fiPU2JYTB5A8kcWvGq7Umf10700302020-10-30T12:09:27.423ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/5rbMEBGaGd1VFyWbyWHHAahttps://video.igem.org/lazy-static/thumbnails/f0ce88f1-a1fd-4bcd-964a-4756fd642b05.jpgBITSPilani-Goa_India: SugarGain (2020) - Team Presentation [English]**Title:** SugarGain **Abstract:** Sugarcane faces the issue of post-harvest sucrose deterioration. This loss is caused by the activity of an enzyme called invertase. Post harvest, invertase cleaves sucrose which reduces sugar retrieval rates by up to 10.25%. We wanted to devise a solution that initiated grassroots-level changes for farmers. The farmer would administer our novel polymer-based inoculant, which would release our bacteria into the stem of the sugarcane, by employing an injector mechanism. Once inside, our genetic circuit inside the bacterial E.coli chassis is designed to exhibit anti-invertase activity, regulated by the amount of fructose inside the sugarcane in a continuous and controlled manner, through a biosensor mechanism. We propose to use a modified type II ccdA-ccdB toxin-antitoxin system as our kill switch that is activated upon exposure to atmospheric concentrations of oxygen. We have also kept in mind the significance of biosafety and designed a robust three-tier failsafe mechanism. [Wiki](https://2020.igem.org/Team:BITSPilani-Goa_India) | [Project Promotion](https://video.igem.org/videos/watch/7e504a75-b11e-4426-9137-c696071a8807)https://static.igem.org/peertube/streaming-playlists/hls/23e8cbfc-bac6-44ef-8e18-7c53208d87c9/3890c43a-9ca5-428e-a049-59cbc37a4672-master.m3u8https://video.igem.org/videos/embed/5rbMEBGaGd1VFyWbyWHHAa11540842020-10-30T12:25:19.102ZAsiaIndiaFood&NutritionYES2020 Team PresentationsNOhttps://video.igem.org/w/11moLR8aakkcoETzzSdz8Rhttps://video.igem.org/lazy-static/thumbnails/9d0eee90-8e49-40f7-bf8a-d03071db1bf8.jpgUC_Davis: SPORE_CORE (2020) - Team Presentation [English]**Title:** Expanding the gene regulatory toolkit in filamentous fungi through bioinformatics-directed genome mining. **Abstract:** We developed computational tools to identify potential filamentous fungal transcription factors and their cognate binding sites to expand the available parts list for these organisms. Our tools enable a comparative genomic approach to mine more than 600 fungal genomes for transcription factors associated with Biosynthetic Gene Clusters and motif finding algorithms to identify their putative binding sites. We have designed the tools we'll need to validate these constructs experimentally which will create a library of transcription factor-binding site pairs. [Wiki](https://2020.igem.org/Team:UC_Davis) | [Project Promotion](https://video.igem.org/videos/watch/cb4c426c-d291-4112-b47a-7194e7bf4285)https://static.igem.org/peertube/streaming-playlists/hls/000c9141-ea22-4f74-931f-d796c10bffcb/f73553d0-10dd-41c5-88f8-39d6f7a0bcf4-master.m3u8https://video.igem.org/videos/embed/11moLR8aakkcoETzzSdz8R11990462020-10-30T12:30:49.219ZNorthAmericaUnitedStatesSoftwareYES2020 Team PresentationsNOhttps://video.igem.org/w/gRT142N6qA4AHiMGSW7HRxhttps://video.igem.org/lazy-static/thumbnails/449203ad-23ec-46ae-b348-1efb29d90a27.jpgJilin_China: iGAME (2020) - Team Presentation [English]**Title:** iGame **Abstract:** This year, an unexpected disease has struck the world. Professor John Conway, who has invented the Game of Life, unfortunately passed away due to this pandemic. The Game of Life is a cellular automaton as well as a self-regulating simulation game. Inspired by this, we design another 'Game of Life' by synthetic biology means in which microorganisms compete for survival under player's light-control. The game contains three plans. Under different plans, player bacteria fight against enemy bacteria with antibiotics system, sensing system and toxin-antitoxin system correspondingly. To optimize players' gaming experience, we conduct experiments in the lab and collect relative parameters and data. Then we make it a videogame so that players can simply click on buttons on the screen to set the light for their battle and within several minutes they can get the game result. [Wiki](https://2020.igem.org/Team:Jilin_China) | [Project Promotion](https://video.igem.org/videos/watch/0eae4a80-0177-4233-8ddb-def1b38405cf)https://static.igem.org/peertube/streaming-playlists/hls/806ff47e-4683-489f-8ce7-72a78372cb0d/4acf4231-bbab-4d62-b623-bf04aabd13fa-master.m3u8https://video.igem.org/videos/embed/gRT142N6qA4AHiMGSW7HRx9960492020-10-30T12:36:48.935ZOpenChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/cezXMjeKA4tkTym75FC555https://video.igem.org/lazy-static/thumbnails/02f3c3b8-137e-4d38-902f-77d7f26a25cc.jpgNanjing-China: PolyP Pro (2020) - Team Presentation [English]**Title:** PolyP Pro **Abstract:** There are many problems with synthetic chemical materials, such as the contamination and safety risks in production process. By means of Synthetic Biology, we hope to biosynthesis the inorganic material polyphosphates, which is commonly used in chemistry, with biomolecular proteins in order to obtain a new environmental friendly material, which not only maintains the original function of the biomolecule but also optimize its chemical properties. [Wiki](https://2020.igem.org/Team:Nanjing-China) | [Project Promotion](https://video.igem.org/videos/watch/6da10980-16dd-4293-8aaa-553f7d2f4db7)https://static.igem.org/peertube/streaming-playlists/hls/5afa1fba-826f-4f50-9de7-705203e1508c/e415d87a-b226-4fcc-b3a5-1073c90b3948-master.m3u8https://video.igem.org/videos/embed/cezXMjeKA4tkTym75FC55511900382020-10-30T12:39:12.151ZAsiaChinaNewApplicationYES2020 Team PresentationsNOhttps://video.igem.org/w/hKJtmS1bjT71DXR6kZi1huhttps://video.igem.org/lazy-static/thumbnails/8835386a-fa33-4cc2-9740-eb4726b43287.jpgSUSTech_Shenzhen: Developing a Small Molecule to Inhibit Phage Infection of Bact... (2020) - Team...**Title:** Developing a Small Molecule to Inhibit Phage Infection of Bacterium Pseudomonas **Abstract:** Pseudomonas have great potential for different biotechnological applications, particularly in the areas of bioremediation and biocatalysis. For instance, more than 80% vitamin B12 is synthesized by P.denitrificans in factories. Here we present a chemical biology approach of developing a small molecule that can protect Pseudomonas from phages infection. We attempt to utilize the Target-Directed Screening technique to find a small molecule which disrupts the translation of a critical protein during phages infections. In silico screening was performed using the software Molecular Operating Environment and an effective compound was confirmed through further tests. [Wiki](https://2020.igem.org/Team:SUSTech_Shenzhen) | [Project Promotion](https://video.igem.org/videos/watch/fb8127ad-89ed-448c-8c3f-895037d29cdb)https://static.igem.org/peertube/streaming-playlists/hls/87ad5ff2-aa50-4b1e-985c-7c7a7d709e94/3edf9ed1-66b8-409b-855b-15bdfb649343-master.m3u8https://video.igem.org/videos/embed/hKJtmS1bjT71DXR6kZi1hu11660392020-10-31T09:50:43.849ZChinaEnvironmentAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/x3eSzuYewDh7Cj3RpuPzGXhttps://video.igem.org/lazy-static/thumbnails/d756ee10-130a-4b5c-b811-4ad00188729f.jpgASTWS-China: When Microplastics Meet Biofilms: Enhanced Degradation of Environme... (2020) - Team...**Title:** When Microplastics Meet Biofilms: Enhanced Degradation of Environmental Plastics by Biosorption **Abstract:** Microplastics from household waste are easily entered into our water system, which is one of the most difficult environmental pollutants to degrade. The newly developed biodegradation technology can effectively degrade highly polyester contaminants, such as PET plastics, which can be efficiently degraded using PETase. On the other hand, biosorption can effectively collect microplastic particles. Therefore, in this study, we hypothesize that genetically enhanced biofilms can promote PET microplastic degradation through the proximity effect of the enzyme and substrate, thus benefiting future environmental governance applications. [Wiki](https://2020.igem.org/Team:ASTWS-China) | [Project Promotion](https://video.igem.org/videos/watch/dbae9f96-c1e0-4685-9c5b-161cf81cb1ce)https://static.igem.org/peertube/streaming-playlists/hls/fb5b55be-a39d-4671-87ab-0e12282330a3/27723fe2-7f55-4b2b-9443-344742781618-master.m3u8https://video.igem.org/videos/embed/x3eSzuYewDh7Cj3RpuPzGX11730942020-10-30T13:18:09.272ZAsiaHighSchoolChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/8yAgGeHtZwQxsghWbKRoh4https://video.igem.org/lazy-static/thumbnails/55979334-ac04-4fbb-ba1e-679f034bd0ff.jpgDUT_China: Reboot T4 (2020) - Team Presentation [English]**Title:** Reboot T4 **Abstract:** With the increasing antibiotic resistance of pathogenic bacteria, we are entering the post-antibiotic era with no antibiotics available. Phage therapy is one of the promising strategies to fight against pathogenic bacteria. Synthetic biology provides the feasibility to engineer natural phages with desired properties suitable for phage therapy. Here, we are developing a yeast-based platform to genetically manipulate and reboot Coliphage T4, whose 168.9 kbp-sized genome is too huge to manipulate through existing methodologies. The whole T4 genome is amplified and assembled hierarchically through overlapping extension PCR, yeast transformation associated assembly, and CRISPR/Cas9-facilitated homologous recombination assembly. The reconstituted T4 genome is then electroporated into E. coli to generate phage particles. We expect that our platform is suitable for the manipulation of huge phages with large-sized genomes. [Wiki](https://2020.igem.org/Team:DUT_China) | [Project Promotion](https://video.igem.org/videos/watch/3ad82991-a1d1-4693-8463-3ac1aa04d6d2)https://static.igem.org/peertube/streaming-playlists/hls/3d3ce429-5e4c-494d-8846-6739f6e3d8d3/12f823e0-8f99-4a4b-a713-f76b46526f3f-master.m3u8https://video.igem.org/videos/embed/8yAgGeHtZwQxsghWbKRoh411870462020-10-30T13:22:27.048ZChinaAsiaFoundationalAdvanceYES2020 Team PresentationsNOhttps://video.igem.org/w/tNMomhay13Pf5jAHLcsTzEhttps://video.igem.org/lazy-static/thumbnails/b4ffe329-d7c0-4eb5-9412-fc82acc562c6.jpgKEYSTONE_A: Bacterial cellulose-based living Gaoyao for arthritis treatment (2020) - Team Present...**Title:** Bacterial cellulose-based living Gaoyao for arthritis treatment **Abstract:** In this aging society, arthritis haunts 355 million people around the world, but we still have no radical cure for it. Inspired by 'Gaoyao' (an active patch with medical properties) in traditional Chinese medicine, we aim to tackle arthritis by designing a living Gaoyao. Its matrix is bacterial cellulose, a biomaterial with excellent biological compatibility and physical properties. It is embedded with engineered mammalian therapeutic cells harboring a modular genetic circuit, which contains: (1) a sensor with (2) an amplifier to detect trace amounts of inflammation signals at the early stage; (3) an effector that can secret antagonists of pro-inflammatory cytokines to suppress inflammation, BMP2 to activate skeletal stem-cells, and glucosamine to provide building blocks for cartilage; (4) a safety switch, enabling people to externally control the system. It can provide long-term treatment for arthritis, which not only suppresses inflammation before damages and pains arise, but also promotes cartilage regeneration. [Wiki](https://2020.igem.org/Team:KEYSTONE_A) | [Project Promotion](https://video.igem.org/videos/watch/799eaf43-fdcc-482d-97c9-a8886c733355)https://static.igem.org/peertube/streaming-playlists/hls/e12eed4c-7c5e-42e3-aac5-c39b328ca44c/78004cae-0011-4565-b3d8-78b78d31d2c2-master.m3u8https://video.igem.org/videos/embed/tNMomhay13Pf5jAHLcsTzE11870372020-10-30T13:26:47.076ZChinaAsiaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/t2haYZcvp3oibzD5DS8Rohhttps://video.igem.org/lazy-static/thumbnails/af6555ac-48de-4c8c-a995-4f0f4ead9b49.jpgKorea-SIS: Save Our Rice Anywhere (2020) - Team Presentation [English]**Title:** Reducing Post-Harvest Losses During Storage of Grain Crops to Strengthen Food Security in Developing Nations **Abstract:** Rice is a staple food for many countries in Asia. Rice needs to be dried and stored under specific conditions after harvest. If not, it loses its merchantability and affects the total yield. In Sri Lanka, it affects the livelihood of 1.8 million farmers and the lack of proper post-harvest technology is costing them 2393 million dollars annually. The fungi that are present in the storage of rice are Aspergillus spp. In this project, we establish a stringent post-harvest management system for rice by measuring the concentration of aflatoxin B1, a toxin produced by Aspergillus spp. To measure the concentration of AFB1, we used the enzyme, cytochrome P450 1A2. Reactions between AFB1 and CYP1A2 result in compounds with epoxide residue, which can be used for the detection. Here, we also proposed a nonparametric MARS model designed to capture possible inter-dependent effects of environmental factors on fungal infection of stored rice. [Wiki](https://2020.igem.org/Team:Korea-SIS) | [Project Promotion](https://video.igem.org/videos/watch/484e61a4-bf30-4116-aae3-8a634217bc6b)https://static.igem.org/peertube/streaming-playlists/hls/dad47439-dff8-4da1-87af-db3286cd43c8/45cbf016-1fac-461a-b968-c267ad32072f-master.m3u8https://video.igem.org/videos/embed/t2haYZcvp3oibzD5DS8Roh11990342020-10-30T13:34:04.988ZHighSchoolAsiaKoreaRepublicOfYES2020 Team PresentationsNOhttps://video.igem.org/w/nu222RyQBe3EiPBDDsCDwEhttps://video.igem.org/lazy-static/thumbnails/0429b096-78bd-446f-a628-acef9a268236.jpgAalto-Helsinki: SINISENS - A step towards cleaner waters (2020) - Team Presentation [English]**Title:** SINISENS - A step towards cleaner waters **Abstract:** The presence of macrolide antibiotics in nature is a growing concern as they have been on the 'watch-list' of pharmaceuticals for EU-wide monitoring in aquatic environments for several years. They can be harmful for the environment and human health because they are persistent and can remain biologically active. Additionally, they may promote the development of antimicrobial resistance. According to various experts, there will likely be regulations regarding the monitoring of macrolide antibiotics in the near future. However, current methods for measuring them are time-consuming, expensive and require expertise. Our solution, SINISENS, is designed to aid wastewater treatment plants to monitor the concentrations of macrolide antibiotics and could be used to optimize the removal process. SINISENS is an optical on-site biosensor based on a genetic circuit that utilises a transcription factor called MphR to detect macrolide antibiotics. In the presence of these compounds, SINISENS produces green fluorescence as an output signal. [Wiki](https://2020.igem.org/Team:Aalto-Helsinki) | [Project Promotion](https://video.igem.org/videos/watch/0bd66f9d-6113-4810-b8ed-7389d2c3f642)https://static.igem.org/peertube/streaming-playlists/hls/adf95d5a-25d5-4736-bca3-611c129c4646/cc08a86d-e78a-46d6-b70c-e8015a09156a-master.m3u8https://video.igem.org/videos/embed/nu222RyQBe3EiPBDDsCDwE119401552020-10-30T13:43:27.827ZEnvironmentEuropeFinlandYES2020 Team PresentationsNOhttps://video.igem.org/w/bPAnahLPD6XxNz3Z5SLHJNhttps://video.igem.org/lazy-static/thumbnails/86d86821-12d5-44ed-b3d3-f7f9c94008b4.jpgVilnius-Lithuania: FlavoFlow (2020) - Team Presentation [English]**Title:** FlavoFlow - a comprehensive exogenous fish infections detecton, treatment and prevention strategy **Abstract:** Growing fish consumption rates encouraged marine culture farms to implement recirculating aquaculture systems that make intensive fish production compatible with environmental sustainability. Even if these systems reduce the use of terrestrial resources, water recirculation in such systems can cause significant losses because of bacterial or viral infections. A common pathogen of fish infections is the Flavobacterium genus bacteria, which can cause fish death in a few days after the initial infection. To detect the infection as soon as possible, we developed a rapid detection test based on helicase-dependent amplification and lateral-flow assay methods. Additionally, we created a novel treatment method which relies on a quorum sensing mechanism and exolysin protein with the aim of decreasing antibiotic consumption levels. Finally, to prevent forthcoming infections, our third goal is to provide a prevention system based on subunit vaccines encapsulated in alginate beads. [Wiki](https://2020.igem.org/Team:Vilnius-Lithuania) | [Project Promotion](https://video.igem.org/videos/watch/831569f1-ed65-41b3-bc9c-f68ab4d2c95c)https://static.igem.org/peertube/streaming-playlists/hls/57a08599-3590-465a-898a-33f2018ff136/7bb6cc99-6635-4e33-b600-9748458c6e5e-master.m3u8https://video.igem.org/videos/embed/bPAnahLPD6XxNz3Z5SLHJN1200018812020-10-30T15:29:02.350ZEnvironmentLithuaniaEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/5qBubcmJ9Vg89KoGxb8heMhttps://video.igem.org/lazy-static/thumbnails/ddd3428d-6897-44ce-b2a3-ffb0ce79da4d.jpgMRIIRS_FARIDABAD: li-Koff: To detect and Degrade N-Nitrosamines (2020) - Team Presentation [English]**Title:** Li-Koff: To Detect and Degrade N-Nitrosamines **Abstract:** N-Nitrosamines are group of compounds formed from the reaction between nitrites and secondary and tertiary amines. Majority of these compounds are known to be potent carcinogens. They are found in pharmaceuticals, cosmetics, processed meats, alcoholic beverages, cigarette smoke, suspended particulate matter (spm) etc. But, their presence in potable water post disinfection stage in water treatment plants is most alarming; as their formation depends upon temperature and pH and not on the precursor molecules forming them. Quantifying them through conventional techniques of LC/MS, GC/MS, HPLC, etc., is time consuming, labour intensive and an costly affair. Hence, li-koff pitches in as an alternate synbio solution for an easy detection and estimation of these compounds in water samples. Further, it also degrades some of these compounds upon detection. [Wiki](https://2020.igem.org/Team:MRIIRS_FARIDABAD) | [Project Promotion](https://video.igem.org/videos/watch/aefae00f-fb22-46df-a943-60e3902c8349)https://static.igem.org/peertube/streaming-playlists/hls/23d44625-d46d-4d39-868d-92e32ed50d77/ef2fc1bc-ac7b-419e-9932-58584199ec32-master.m3u8https://video.igem.org/videos/embed/5qBubcmJ9Vg89KoGxb8heM11850272020-10-31T09:48:19.214ZAsiaIndiaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/brrGCdND83ezyz5CVj89yahttps://video.igem.org/lazy-static/thumbnails/c3ae237a-cc22-457d-bdab-7378f5b21052.jpgBIT: Dr. Watson——j.o.h.n:judge of COVID-19 handling (2020) - Team Presentation [English]**Title:** Dr. Watson: j.o.h.n:judge of COVID- 19 handling **Abstract:** Since the outbreak of the COVID-19 at the end of 2019, it has caused great harm to public health safety. Although the current detection methods are diverse, most of the main applications are hospitals with certain qualifications and conditions. This is no small challenge for people in developed, developing, and underdeveloped countries. Therefore, it is very necessary to have a simple operation and easy-to-carry testing equipment that can be used in communities and rural hospitals. Therefore, this year's BIT team is committed to designing related integrated detection systems. Based on the designed biosensing module, centrifugal chip moduleÔºå smart phone module, and the COVID-19 related protein markers ÔºàConvert it into a nucleic acid signalÔºâ are fast, sensitive, portable and low-cost. Testing, providing effective testing programs for the new coronavirus in places with low medical testing resources. [Wiki](https://2020.igem.org/Team:BIT) | [Project Promotion](https://video.igem.org/videos/watch/85a2496a-866b-4ef0-822b-38fb2d048c2d)https://static.igem.org/peertube/streaming-playlists/hls/5488d1bd-81f3-4ecf-8dcd-5e52990a84c1/82666fa8-9183-4204-80f2-8b95450f2faa-master.m3u8https://video.igem.org/videos/embed/brrGCdND83ezyz5CVj89ya10190522020-10-30T14:13:00.621ZAsiaDiagnosticsChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/8TE6hFfrjPqvtj65SXZLVRhttps://video.igem.org/lazy-static/thumbnails/91192956-b6d9-45b3-8898-26234091415f.jpgUofUppsala: NANOFLEX (2020) - Team Presentation [English]**Title:** NANOFLEX **Abstract:** Our project aims to create a cellular biosensor adaptable to detect your analytes of choice. Its design contains a sensory module, where nanobodies interact with the targets, activating the signal amplification module, which will result in an output signal visible to the naked eye. Placing this system in an easy-to-use format we intend to offer a standardized, flexible and accessible detection system. [Wiki](https://2020.igem.org/Team:UofUppsala) | [Project Promotion](https://video.igem.org/videos/watch/bebec79b-b012-4ccd-ac56-5b14c6231f51)https://static.igem.org/peertube/streaming-playlists/hls/3fe6609d-8c17-4933-8e99-18295f028a7b/29f7379c-1be6-4518-8b53-583340f4f8c6-master.m3u8https://video.igem.org/videos/embed/8TE6hFfrjPqvtj65SXZLVR9550572020-10-31T09:52:17.651ZEuropeSwedenNewApplicationYES2020 Team PresentationsNOhttps://video.igem.org/w/6Jaqo65iEWrcGtNNQtt3Qfhttps://video.igem.org/lazy-static/thumbnails/351c0bd8-ac30-4782-901d-198ab523c7bd.jpgUC_San_Diego: Bacsygen (2020) - Team Presentation [English]**Title:** BACSYGEN: BACteriotherapy via SYnthetic GENomes **Abstract:** Despite cancer being one of the leading causes of death, successful treatment remains a challenge due to the heterogeneous nature of tumors. While a multitude of treatment options exist including chemotherapy, radiotherapy, and immunotherapy, they all have significant limitations and have prompted the development of alternative therapies such as bacteriotherapy. While certain bacteria have shown great therapeutic potential, different bacteria are involved in unique tumor suppressing pathways, and as a result, a combination of various tumor-suppressing bacteria have been shown to achieve the greatest efficacy. However, these microbes require genetic modification to lower potential toxicity and eliminate any side effects on normal cells. Our team proposes a classification algorithm to first classify whether a bacteria affects a tumor-resisting pathway, and then feeding this information into our Generative Adversarial Network to create a synthetic bacterial genome with multiple tumor-suppressing features while also being clinically significant. [Wiki](https://2020.igem.org/Team:UC_San_Diego) | [Project Promotion](https://video.igem.org/videos/watch/b8fad4c5-d2ac-4c46-a0cd-deee51d69be8)https://static.igem.org/peertube/streaming-playlists/hls/2e60bcb5-5d72-4947-9ec4-ef74aaa7b79e/d9dfb48f-3c17-4421-8531-1c94399f7041-master.m3u8https://video.igem.org/videos/embed/6Jaqo65iEWrcGtNNQtt3Qf11550252020-10-30T14:25:32.042ZNorthAmericaTherapeuticsUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/sxHJhGLZEq7uyzeNd2VT8Vhttps://video.igem.org/lazy-static/thumbnails/5aeecb27-49bd-4870-8fb2-d457dbcfc58b.jpgBOKU-Vienna: Phangel (2020) - Team Presentation [English]**Title:** Phangel - Taking Phage Therapy Ahead **Abstract:** Our vision is to alleviate bacterial infections and their systemic consequences by not only eliminating hostile bacteria but also, in a second step, capturing their toxic components released during bacterial lysis. Our goal is to recombinantly engineer a T7 bacteriophage that by infection forces its target bacterium to produce gelsolin, a protein able to bind the endotoxin LPS. Firstly, we designed our experiments in silico to contribute our parts to the iGEM registry. We then cloned the plasmids containing the recombination system necessary for engineering our phage. The genes to be inserted into the phage genome were amplified. Additionally, we designed a safety measure to inhibit the engineered phage's ability to reproduce autonomously. To support our experimental findings we modelled the interaction between T7 bacteriophages and E.coli. Furthermore, to gain more insight into the biology of the T7 bacteriophage, we collaborated with team TU Delft to characterize the wildtype. [Wiki](https://2020.igem.org/Team:BOKU-Vienna) | [Project Promotion](https://video.igem.org/videos/watch/268f3747-e86c-4e83-9e0f-e19b62b0c199)https://static.igem.org/peertube/streaming-playlists/hls/d6fb60e5-96f1-4d76-89ee-c86456af83cf/43a8f4ff-c6e0-4ed7-ac8e-47b6d19ba1aa-master.m3u8https://video.igem.org/videos/embed/sxHJhGLZEq7uyzeNd2VT8V9560572020-10-30T14:36:06.635ZTherapeuticsEuropeAustriaYES2020 Team PresentationsNOhttps://video.igem.org/w/iTpVzsgFBAyF7DcT9JS6owhttps://video.igem.org/lazy-static/thumbnails/68133232-d798-4518-accc-5c1ee54cf45a.jpgPatras: Hippocrates (2020) - Team Presentation [English]**Title:** Hippocrates: Genomic Analysis & Artificial Intelligence at your heart's disposal **Abstract:** According to the World Health Organization, cardiovascular diseases are one of the main causes of death worldwide due to the blood's high LDL cholesterol level. Statins are the drug category that is administered to regulate the levels of LDL cholesterol. However, 1/3 of patients do not respond effectively, resulting in several side effects. There are human genes that regulate a particular drug's metabolism. Depending on individuals' genetic profiles, the required therapeutic drug-dose can be accurately determined by available but optional tests. The SLCO1B1 gene is involved in the uptake of statins by liver cells. So, we present an innovative, time-saving, and portable genotyping method based on BentoLab (iGEM UCL 2013) for detecting genome polymorphism related to statins' metabolism, combined with Artificial Intelligence, to make a fast and accurate analysis of results to facilitate those who perform the test. [Wiki](https://2020.igem.org/Team:Patras) | [Project Promotion](https://video.igem.org/videos/watch/c9fa2dce-9d9b-4c10-b389-34dfab312ae5)https://static.igem.org/peertube/streaming-playlists/hls/90d90873-cb70-4ceb-94e1-b0103161837e/7ee1a763-e8b6-435d-88a7-e59a60df5d80-master.m3u8https://video.igem.org/videos/embed/iTpVzsgFBAyF7DcT9JS6ow78604442020-10-30T14:49:54.279ZDiagnosticsEuropeGreeceYES2020 Team PresentationsNOhttps://video.igem.org/w/vPkj1yaXf1T9MjUqBnuHzuhttps://video.igem.org/lazy-static/thumbnails/1d51c4d0-7bdf-410d-b232-90dd2a1a7726.jpgNYMU-Taipei: Off the Crown (2020) - Team Presentation [English]**Title:** Off the crown **Abstract:** Due to the serious pandemic of COVID-19, this year, iGEM NYMU-Taipei 2020 tries hard to tackle the problem in a much more elementary approach. By utilizing the nature of strong binding interactions between hACE2 and the spike of SARS-CoV-2, we deeply believe that we would be able to reap the benefits of viral evolution. In order to achieve our goals, we engineered a protein construct that includes the hACE2 receptor binding domain, a linker, and a protease that is specific at cleaving spike proteins. The protein construct functions as a capture device and can be implemented on many occasions, such as masks, contact lenses, and even filtration devices, as a mean to capture, destroy, and even quantify the amount of virus particles on a particular surface, so as to reduce the number of SARS-CoV-2 and, moreover, decline the possibility of infection on human beings. [Wiki](https://2020.igem.org/Team:NYMU-Taipei) | [Project Promotion](https://video.igem.org/videos/watch/01f09624-0175-4c0e-80c6-783c10ecdd09)https://static.igem.org/peertube/streaming-playlists/hls/f174e0fc-9579-4eb1-ae70-4f13f5aa19ea/962cffb2-e779-4baa-a044-dd562f1d5c8b-master.m3u8https://video.igem.org/videos/embed/vPkj1yaXf1T9MjUqBnuHzu11490412020-10-30T14:56:18.668ZNewApplicationTaiwanAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/kyTNcbA54a3LDMEZZuzn5Hhttps://video.igem.org/lazy-static/thumbnails/bd88d35a-9b8b-4ff1-aea0-a868b4cc5571.jpgHamburg: UniCorn - an aMAIZEing concept (2020) - Team Presentation [English]**Title:** Unicorn - an aMAIZEing concept **Abstract:** Synthetic biologists imagine fancy synthetic circuits, which perform well in silico but have unforeseen effects in applications. In many cases we add synthetic control instruments (e.g. promoters) to already complicated cells, hoping everything works as planned even in the cellular context. But this additional complexity can pose a problem, due to unknown interactions with regulatory processes. Our aim is to make synthetic gene control easier. Cells possess specific responses to external stimuli, like pathogen infection. We propose a new mechanism which connects the natural cell response with the reliable expression of a target output, making synthetic gene control less complex and more replicable. After the proof of concept in E. coli, Zea mays and Arabidopsis thaliana we hope that our universally applicable method will be used to create sustainable pathogen and disease resistances in crop plants. [Wiki](https://2020.igem.org/Team:Hamburg) | [Project Promotion](https://video.igem.org/videos/watch/f5b3b1c9-79c1-4d42-a6c4-75fa3c44a4cf)https://static.igem.org/peertube/streaming-playlists/hls/9e755b19-cda9-49be-987a-9307d041e4cd/7143c993-9b84-4d95-bb72-bff62efaa81b-master.m3u8https://video.igem.org/videos/embed/kyTNcbA54a3LDMEZZuzn5H7800322020-10-30T15:36:27.324ZGermanyEuropeFood&NutritionYES2020 Team PresentationsNOhttps://video.igem.org/w/iiSfVQiQC3hu7RfRnHRSkjhttps://video.igem.org/lazy-static/thumbnails/c934a240-2fc9-47cb-ba53-b9ad2bc63def.jpgSMS_Shenzhen: SKIP (2020) - Team Presentation [English]**Title:** Special Kit Invented for Parkinson's disease **Abstract:** Parkinson's Disease, a syndrome causing patients to present static tremor and rigidity, has become a major disease in people over 60. Until now, it is still common that patients forget to take meds or are unable to do so due to tremoring and dystonia. The predicament has severely affected the potency of drugs and accelerating the progress of the disease. Therefore, we design SKIP (Special Kit Invented for Parkinson's disease). Light-inducible bacteria, along with devices that carry LED, are first implanted into patients' intestine. A bracelet will detect tremors when it occurs and sends signals to doctors, who would administrate L-dopa and send the signal back into the device that is implanted in the intestine. Receiving the signal, the LED will illuminate, which induces the light-inducible bacteria to produce L-dopa. Being capable to achieve instant feedback and remote regulation, SKIP has the potential to be applied to variable conditions. [Wiki](https://2020.igem.org/Team:SMS_Shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/8c29f938-bb48-42cd-a02b-bbd53b2f7700/87ab73b7-686c-4c7f-8f30-3b99a4f047e1-master.m3u8https://video.igem.org/videos/embed/iiSfVQiQC3hu7RfRnHRSkj9240262020-10-30T15:23:53.184ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/dPnPgus7xEyqV9WTzNALZXhttps://video.igem.org/lazy-static/thumbnails/f8d88176-2cac-4361-8dfe-2484f57a931d.jpgNTHU_Taiwan: BioSQUAD (2020) - Team Presentation [English]**Title:** BioSquad **Abstract:** Quantum dots are zero-dimensional tiny speck of material effectively concentrated into a single point known as artificial atoms which can revolutionize everything ranging from home lights and computer displays to solar cells and biological warfare detectors. Our Team NTHU_Taiwan design a concept for biosynthesis of quantum dots utilizing industrial heavy metal containing wastewater. Hereby we hypothesized to gain multiple benefits from single project. We first aimed of bio-synthesizing quantum dots using E-coli. Secondly, we planned to use cadmium rich industrial wastewater as a source of metal ions. Under normal conditions bacteria itself cannot manage efficient internalization of metals which might leads to cellular oxidative stress and bacterial death. So, we used gene editing techniques and promoter genes to control internalization of cadmium ion and production of cadmium sulfide quantum dots. We are successful on genetically modifying E coli, to seek highly efficient productivity of QDs. [Wiki](https://2020.igem.org/Team:NTHU_Taiwan) | [Project Promotion](https://video.igem.org/videos/watch/2875e200-070f-4b1b-8fe4-2cfad3842c53)https://static.igem.org/peertube/streaming-playlists/hls/67cb10a7-21e1-4498-91ea-f59d831c0ae1/4d551982-6076-46f8-a6c7-8fcf9c4f35e1-master.m3u8https://video.igem.org/videos/embed/dPnPgus7xEyqV9WTzNALZX11850562020-10-30T15:33:45.750ZManufacturingTaiwanAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/nMvGVb1AnN4R3PKvsfaTtLhttps://video.igem.org/lazy-static/thumbnails/3caf68ae-f9fa-4e6b-a17d-2cea37c29685.jpgCSU_CHINA: Clean the contamination of Cadmium (2020) - Team Presentation [English]**Title:** Clean the Contamination of Cadmium ( CcC ) **Abstract:** Recently, the cadmium-contaminated rice circulating in the market. Long-term intake of cadmium will jeopardize human bodies. To deal with the problem, we utilize engineered Synechocystis as a competent cadmium absorber. Moreover, with blue-ray/antitoxin suicide system, the reformed alga will be appropriately contained. The cadmium can be recycled as the microorganisms will be calcined after absorption. The application of engineered alga will minimize human potential cadmium intake. [Wiki](https://2020.igem.org/Team:CSU_CHINA) | [Project Promotion](https://video.igem.org/videos/watch/afa0332b-45fa-4633-ab92-39ed31e12e62)https://static.igem.org/peertube/streaming-playlists/hls/b06ab02a-a7f7-40fc-b56a-4c84535530be/8d665206-9a65-4bba-a0a9-7325fd327565-master.m3u8https://video.igem.org/videos/embed/nMvGVb1AnN4R3PKvsfaTtL10010642020-10-30T15:42:26.901ZChinaEnvironmentAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/bBuye4egL3tXXMJtkGZd48https://video.igem.org/lazy-static/thumbnails/d02b0bd0-cc9f-4d1c-92c1-dc341f195a3a.jpgXHD-ShanDong-China: DisHeat:increase heat adaptability of E. coli (2020) - Team Presentation [Eng...**Title:** DisHeat: increase heat adaptability of E. coli by changing the distance between genes **Abstract:** Escherichia coli is one of the most widely-used bacteria in biological industry. However, its optimum growth temperature (37‚ÑÉ) needs to be carefully maintained to show the best activity. It will be more effective if E. coli can tolerate with a higher temperature. In this project, we tried to increase the heat adaptability of E. coli by changing the distance between a heat adaptation gene (degP) and its two regulator genes (cpxR and rpoE) belonging to a feed forward loop (FFL) network motif. Our new approach provides an alternative to the traditional methods such as enhancing promoter and plasmid transfection. This new engineered E. coli can not only improve reaction efficiency but also meet more requirements of special usage scenario (such as tropical regions). Meanwhile, we also investigated the relationship between distance and expression of genes in the network motif, which has foundational significance to synthetic biology. [Wiki](https://2020.igem.org/Team:XHD-ShanDong-China) | [Project Promotion](https://video.igem.org/videos/watch/1a409107-a7ac-4dc2-a4d5-f95a95b9077f)https://static.igem.org/peertube/streaming-playlists/hls/55f0043d-b917-4f6b-8870-f81ca94f2f6d/7e8b0fb1-1163-4b42-af82-2fc8803bc003-master.m3u8https://video.igem.org/videos/embed/bBuye4egL3tXXMJtkGZd4811900102020-10-30T15:46:40.484ZChinaAsiaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/s1qN7yzsQSBx4bFZT8Lcqbhttps://video.igem.org/lazy-static/thumbnails/3c58da9f-a2c1-4d6f-8e80-e71e47384240.jpgHK_CPU-WFN-WYY: Cutinases- the Terminators of Microplastic (2020) - Team Presentation [English]**Title:** Cutinases - the Terminators of Microplastics **Abstract:** Polyethylene terephthalate (PET) is the most common thermoplastic polymer resin of the polyester family. Our team is searching for one or more suitable cutinases to degrade PET from plastic packages. We found that cutinases can convert lcPET to terephthalic acid (TPA) and ethylene glycol (EG). Therefore, we aim at reducing the harm of PET to the environment by using cutinases with a lower cost safely. First, we will determine the optimum working conditions of cutinases. Different kind of cutinases will be compared on their ability, efficiency, and optimum condition of degradation. Furthermore, those cutinases will be chosen and we will focus on the degradation rate of PET. We will consider not only the efficiency but the safety of using cutinases to degrade PET. Hence, we are here to try our utmost to solve plastic pollution through Synthetic Biology to digest plastic. [Wiki](https://2020.igem.org/Team:HK_CPU-WFN-WYY) | [Project Promotion](https://video.igem.org/videos/watch/81734f14-a7bb-4f4c-a36b-1d9f817cf748)https://static.igem.org/peertube/streaming-playlists/hls/d29ce2ba-43cd-4266-95fc-2c4a7d47a8f6/5f64a23b-5912-4e07-b92f-9203e8477c08-master.m3u8https://video.igem.org/videos/embed/s1qN7yzsQSBx4bFZT8Lcqb10410502020-10-30T15:50:32.531ZHighSchoolAsiaHongKongYES2020 Team PresentationsNOhttps://video.igem.org/w/3x48hHZS2YnejroGBtCzcqhttps://video.igem.org/lazy-static/thumbnails/ae247429-303f-4ea5-86cd-88a332423f71.jpgHarvard: MOTbox (2020) - Team Presentation [English]**Title:** MOTbox: A COVID-19 Antibody Therapeutic Based on Machine Learning and DNA Origami Sequence Delivery **Abstract:** MOTbox is a COVID-19 therapeutic that couples machine learning and DNA origami to design an optimized anti-SARS-CoV-2 antibody and deliver its mRNA sequence to immune cells in infected patients. It is intended to serve as an interim treatment in a pandemic scenario that can be manufactured cheaply and quickly with limited lab access while a vaccine is developed. Using ensemble machine learning and differential evolution algorithms, we optimized anti-SARS-CoV-2 antibody sequences to enhance binding affinity and therapeutic potential. We designed and computationally validated a novel DNA origami nanostructure to selectively deliver the optimized antibody sequences to immune cells for rapid antibody production in vivo. The high potency of the optimized antibodies and the specificity of DNA origami delivery reduce the minimum therapeutic dose, thereby reducing treatment cost. Our work is a proof-of-concept of a rapid, cost-effective antibody treatment for COVID-19 that can also be extended to treating other emerging diseases. [Wiki](https://2020.igem.org/Team:Harvard) | [Project Promotion](https://video.igem.org/videos/watch/2a7d0b90-4f74-4239-970d-e8b2bacfb69c)https://static.igem.org/peertube/streaming-playlists/hls/148842ac-a92d-42fb-bf31-0400b405216a/82275fc6-c411-4e31-8db2-475e38f4034f-master.m3u8https://video.igem.org/videos/embed/3x48hHZS2YnejroGBtCzcq11990872020-10-30T15:55:11.508ZNorthAmericaUnitedStatesTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/9F7VcXqVdSrKyghfUCn63khttps://video.igem.org/lazy-static/thumbnails/431355f2-4737-4798-8774-f757d058722d.jpgAustin_UTexas: Phast-Phage (2020) - Team Presentation [English]**Title:** PhastPhage **Abstract:** Bacterial contamination of drinking water is a huge problem worldwide, causing 780,000 deaths on average each year. With PhastPhage, we intend to create a phage-based biosensor for detecting the presence of E. coli contamination in water sources. Using the stoichiometric gene expression simulator Pinetree, we modeled the genome of bacteriophage T7 in order to determine how we could engineer it to produce large amounts of GFP and shorten the time it takes to lyse bacterial cells during an infection cycle. We determined that the most effective way to achieve this was to place a GFP gene, as well as move a holin gene responsible for lysis proteins, into the genome adjacent to gene 10A, which encodes for a major capsid protein and has the highest level of expression of all of T7's genes. In the future we hope to engineer phage with these changes and confirm our model's predictions experimentally. [Wiki](https://2020.igem.org/Team:Austin_UTexas) | [Project Promotion](https://video.igem.org/videos/watch/9b01db28-76b8-4a09-93d1-1c28aae126c4)https://static.igem.org/peertube/streaming-playlists/hls/463f6118-4444-4c1d-8346-ba6200e1c4c3/47777033-e62c-464c-aa17-b1b570eacaa5-master.m3u8https://video.igem.org/videos/embed/9F7VcXqVdSrKyghfUCn63k11950442020-10-30T16:01:23.875ZDiagnosticsUnitedStatesNorthAmericaYES2020 Team PresentationsNOhttps://video.igem.org/w/hpRcTMW6tjttJufqahj8FXhttps://video.igem.org/lazy-static/thumbnails/924306fc-9653-441b-bd99-2baafe630ee7.jpgKEYSTONE: B.B.Bin (Beach Bacteria Bin) (2020) - Team Presentation [English]**Title:** B.B.Bin **Abstract:** The aim of our project is to address PET plastic recycling coverage flaws as well as improving the tourists' experiences through fragrance in natural tourist areas. It will incorporate elements that will educate the public about the importance of plastic degradation and environmental protection. The accomplishment of the our iGEM project this year has two main sectors-- the experiments, which includes the fragrance and plastic degradation, and the hardware. The first experiment was used to insert leaf compost cutinase genes into the E. coli and optimize conditions for translation of the LCC enzyme as well as the conditions for degradation of the PET plastic. Another experiment was inserting the geraniol synthase and linalool synthase gene to produce the linalool fragrance. The mechanical trash can that we designed will assemble these synthetic biology part to degrade plastic. It is comprised of three parts¬ó the shredder, the power source, and the decomposer. [Wiki](https://2020.igem.org/Team:KEYSTONE) | [Project Promotion](https://video.igem.org/videos/watch/0ca5a8c9-1d3c-4e3c-8d24-e1c9c9ef9d90)https://static.igem.org/peertube/streaming-playlists/hls/84e6a622-3df6-4742-82c3-44b91dfbfc79/d392fafe-6a55-4641-8d4c-78b3d65befe8-master.m3u8https://video.igem.org/videos/embed/hpRcTMW6tjttJufqahj8FX10470412020-10-30T16:07:13.038ZChinaAsiaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/p8V2S4vKFVZifMyuxTAQxDhttps://video.igem.org/lazy-static/thumbnails/2ec5a57f-bff8-44c4-a845-f7971ee4fcb5.jpgFCB-UANL: SYNBIOFOAM (2020) - Team Presentation [English]**Title:** Synbiofoam: a synthetic alternative to fluorosurfactants **Abstract:** Mexico's northern biogeographic region is home to wide biodiversity, which is at risk due to the frequent forest wildfires. One of the strategies to combat fires involves the use of firefighting foams, but these usually contain fluorosurfactants (PFAS), which pose an environmental threat. Therefore, our goal is to produce an eco-friendly alternative to this type of threatening substances. To do so, we plan to employ synbio tools to produce four of the Ranaspumin proteins present in the bubble nests of Leptodactilidae frogs, and regulating B. subtilis' natural complex metabolic pathway in charge of synthesizing its biofilm's matrix components for us to substitute PFAS as foaming agents in firefighting mixtures. Not only will our project aid the environment, but it will also allow underfunded fire departments to access these tools because, as there are no foam producers in this country, current foams are very expensive due to importation costs. [Wiki](https://2020.igem.org/Team:FCB-UANL) | [Project Promotion](https://video.igem.org/videos/watch/1c6e9c56-60c9-4943-84cb-95835d52a8be)https://static.igem.org/peertube/streaming-playlists/hls/bb5d13e9-29f8-4b5f-a0bf-6c5732bfe3cb/c2ca80bb-411a-41db-874e-a844ffedbf1d-master.m3u8https://video.igem.org/videos/embed/p8V2S4vKFVZifMyuxTAQxD11770902020-10-30T16:10:52.976ZMexicoLatinAmericaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/jpav5weTqxsUbdaovt2Wcahttps://video.igem.org/lazy-static/thumbnails/4dbbb275-9e92-458d-b5c0-b62607011556.jpgGreatBay_SZ: BIOT (2020) - Team Presentation [English]**Title:** BIOT **Abstract:** The Greatbay_SZ 2020 team aims to develop a moisture-driven energy harvesting device utilizing biotechnology: BIOT. The core of BIOT is engineered-protein filament nanowires, which spontaneously generate and maintain electric potential energy. We optimize BIOT's cost and power supply performance by mutating the pilA gene (of protein monomer) and RBSs. For future implementations, our team plans to provide a stable power supply for IoT (Internet of Things) devices. BIOT is the first application of biotechnology in the IoT field. Its advantages in low environmental restrictions, green and environmentally-friendly materials, stable power generation, long power-harvest duration, low cost, and large-scale applications will promote further global IoT development. [Wiki](https://2020.igem.org/Team:GreatBay_SZ) | [Project Promotion](https://video.igem.org/videos/watch/f06967c6-a8b2-432c-8de4-c8ee87529cdd)https://static.igem.org/peertube/streaming-playlists/hls/9500753f-8fa8-4e36-9bf1-ef808f2d3e17/bb8a649d-6799-406f-9aab-601340f6cf3e-master.m3u8https://video.igem.org/videos/embed/jpav5weTqxsUbdaovt2Wca109403362020-10-30T16:17:40.079ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/kzKcBPkhg5ht4hrCJbEqqyhttps://video.igem.org/lazy-static/thumbnails/1c7aa87a-4e43-4bb0-af15-42e427987caa.jpgIIT_Roorkee: Pyomancer (2020) - Team Presentation [English]**Title:** Pyomancer: Super specific combat system against superbugs **Abstract:** Hospital Acquired Infections are the main cause of most of the ICU deaths and it's imperative to build alternative solutions to treat Bacterial infections and break the wall of antibiotic dependence. Our project provides a narrow spectrum treatment for the Multi-Drug Resistant Bacteria, A. baumannii, through the engineering of naturally found elements, namely, Bacteriophage and Pyocins. Pyocins, as produced by P. aeruginosa, provide single-hit killing kinetics. These are engineered to retarget their specificity by the fusion of a tail fiber of the AP22 Phage (specific to A. baumannii). We have conceptualised a modular system, that can be used to produce a portfolio of designers proteins against the bacterial species we wish to target. Our work also includes the development of a software which computationalizes the protein design process and are applying interesting Machine Learning algorithms to predict which genes are responsible for imparting resistance & susceptibility to strains of bacteria. [Wiki](https://2020.igem.org/Team:IIT_Roorkee) | [Project Promotion](https://video.igem.org/videos/watch/1c07c603-fe21-4128-99fd-10c211df7257)https://static.igem.org/peertube/streaming-playlists/hls/9e93cd55-3ca2-4e5e-a9fc-9aa9002b6340/14987537-9126-4124-b0fe-e4fc02645981-master.m3u8https://video.igem.org/videos/embed/kzKcBPkhg5ht4hrCJbEqqy119201082020-10-30T16:22:21.918ZIndiaTherapeuticsAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/q1AYo4ModjPPMobWwJMxe7https://video.igem.org/lazy-static/thumbnails/66d437df-9969-4b29-8a2e-cac97b4092f2.jpgTU_Kaiserslautern: Microdestruction (2020) - Team Presentation [English]**Title:** Microdestruction **Abstract:** Micropollutants are a massive concern in wastewater treatment, as their accumulation can seriously impact ecosystems. Anti-inflammatory medications such as Ibuprofen or Diclofenac are primary examples of micropollutants becoming an ever-growing problem through patient overuse and relaxed disposal practices. Laccase has been shown to chemically deactivate Diclofenac, leading to functional degradation. Different laccase genes (MarLac, from uncultivated marine bacteria, and BaLac, from a mutant Botrytis aclada) were cloned into both our control bacterium, Escherichia coli, and primary organism, the green algae Chlamydomonas reinhardtii. Produced laccases would be incorporated into a bioreactor set up. Our project will use synthetic biology in an innovative and cost-effective way to produce a self-sufficient system. We want to reduce the need for specialized and still experimental equipment with easy integration into existing sewage treatment plant systems. It is our vision to create a cost-effective and efficient approaches to a cleaner and healthier environment. [Wiki](https://2020.igem.org/Team:TU_Kaiserslautern) | [Project Promotion](https://video.igem.org/videos/watch/747697fc-602c-4c15-89ea-f047100664ce)https://static.igem.org/peertube/streaming-playlists/hls/c270e151-5ade-4067-8158-31412929573c/7b71102a-1773-4f2a-a0b3-86cb6439eb90-master.m3u8https://video.igem.org/videos/embed/q1AYo4ModjPPMobWwJMxe7120002022020-10-30T16:39:23.287ZEuropeEnvironmentGermanyYES2020 Team PresentationsNOhttps://video.igem.org/w/1YSUePAwtqNaALLy9Sinxyhttps://video.igem.org/lazy-static/thumbnails/a08d32b6-80d0-4141-9807-670bda1aaaf2.jpgSUNY_Oneonta: Ca2LF (2020) - Team Presentation [English]**Title:** Confirming A2 Alleles using Luminescence in the Field (Ca2LF) **Abstract:** Small dairy farmers in upstate New York are struggling to survive in a factory-farming marketplace. To increase profits, some farmers are producing specialty products; one such product in the US is A2 milk. A2 milk differs from the more common A1 milk in the sequence of beta-casein, one of the main milk proteins. The gene that codes for the A1/A2 alleles of beta-casein differs by a single nucleotide polymorphism (SNP). A2 milk is growing in popularity in the US due to purported health benefits. Our team aims to create a field-deployable genetic test to facilitate breeding of A2 herds. Our system utilizes a 5' Flap endonuclease (Flappase) and quenched-oligonucleotides that differentially bind to the A1/A2 alleles of beta-casein. When in the correct conformation, Flappase will cleave the oligonucleotides, dequenching the fluorescent tag. Dairy farmers using this system will be able to rapidly identify cows carrying the A2 allele for breeding. [Wiki](https://2020.igem.org/Team:SUNY_Oneonta) | [Project Promotion](https://video.igem.org/videos/watch/ae056098-c33a-4f06-b263-76ea47c2b9b3)https://static.igem.org/peertube/streaming-playlists/hls/07f1050f-6800-4392-9f14-c0327825fbe2/889143bf-cfd8-4920-b102-c9d8ebd025b4-master.m3u8https://video.igem.org/videos/embed/1YSUePAwtqNaALLy9Sinxy11520402020-10-30T16:44:18.691ZUnitedStatesNewApplicationNorthAmericaYES2020 Team PresentationsNOhttps://video.igem.org/w/f9LEFvQxx21HF1TBF4snqwhttps://video.igem.org/lazy-static/thumbnails/65c52bd2-5b30-49cd-89df-865a11518b53.jpgROADS_SY: Rice Arsenate Accumulation Reduction (2020) - Team Presentation [English]**Title:** Rice Arsenate Accumulation Reduction **Abstract:** Thanks to hybridization and genetic modification, rice sustains a huge proportion of the world population. However, arsenate accumulation poses a severe threat to the rice-consuming population, who are generally unaware of the threat and unable to deal with it. We decided to lower the arsenate accumulation of rice by identifying and modifying the genetic sequence related to the arsenate level. Specially, we adopted both the conventional method and the bioinformatic method to identify the related genetic sequence. By doing so, we intended to promote the fusion of bioinformatics and bioengineering. The assumption is that Ospt4 is responsible for the arsenate accumulation of many crop species, including rice. We planned to knock out the genetic sequence and perform contrast experiments to examine whether Ospt4 is related to arsenate accumulation. [Wiki](https://2020.igem.org/Team:ROADS_SY) | [Project Promotion](https://video.igem.org/videos/watch/dcaae9b6-7f0b-41f9-a847-73a520d109bd)https://static.igem.org/peertube/streaming-playlists/hls/72996b1a-11b4-45bd-981e-0fc85344f062/99d8245c-affa-4436-8c3e-9c5d75223b19-master.m3u8https://video.igem.org/videos/embed/f9LEFvQxx21HF1TBF4snqw7500172020-10-30T16:49:06.334ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/pq1TcMc2bKTmsXbboccMHmhttps://video.igem.org/lazy-static/thumbnails/530c4a39-5f88-4910-b206-ce5535e7a480.jpgNJMU-China: Sound of Silence (2020) - Team Presentation [English]**Title:** Sound of Silence: Domestic autism screening based on urinary metabolites **Abstract:** Autistic Spectrum Disorder (ASD), with its prevalence increasing dramatically over past decades, brings severe burden on both families and the society. Nowadays, the screening of ASD mainly bases on behavioral scale, neglecting the genetic and metabolic alterations. Meanwhile, it calls for test methods with lower price and higher privacy. Our project consists two parts: a test strip for domestic tests based on urinary matabolites and further, a parallel screening strategy that increases sensitivity. As for the test strip, it is embedded with whole cell biosensors of elevated urinary serotonin, which was previously reported to play a critical role in ASD development. And the biosensor was constructed utilizing the Qurom-Sensing system in P. aeruginosa in this project. As for the parallel screening strategy, we employed machine learning algorithm and find a combination of metabolites for screening that performs best by representing most of the hetrogenous patient polulation. [Wiki](https://2020.igem.org/Team:NJMU-China) | [Project Promotion](https://video.igem.org/videos/watch/1d6db3cf-a7e0-43d9-a57c-dccade816493)https://static.igem.org/peertube/streaming-playlists/hls/bd9c956e-2488-45bb-a4d8-60678a84be5a/ec36ccd0-4664-4e35-9a8a-d7779a1a4e89-master.m3u8https://video.igem.org/videos/embed/pq1TcMc2bKTmsXbboccMHm10070322020-10-30T16:51:41.633ZAsiaChinaDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/pJbtFjzQunD8Xv3HyfvAT8https://video.igem.org/lazy-static/thumbnails/4098114e-2b07-4d89-8197-bf58c4741dac.jpgTsinghua: NO_induced_Biofilm_Allayer (2020) - Team Presentation [English]**Title:** NO mediated Biofilm Allayer(NBA) **Abstract:** The formation of the complex bacterial community, termed as biofilm, has proved to be critical events in both industry and medical fields. P.aeruginosa, as a common opportunity pathogen, could form resistant bioflim on pipelines which allows it to evade antibiotics and disinfectants. The diatomic gas nitric oxide(NO), a significant signal molecular in both eukaryotes and prokaryotes, has been demonstrated to regulate the formation of the biofilm in P.aeruginosa. Here we designed the engineered bacteria, E.coli in this project, which coudld sense the presence of P.aeruginosa via introduced Rhl quorum sensing(QS) system, triggering the synthesis of NOS gene and the production of NO, and eventually resulting in the biofilm dispersion. Compared with NO gas and chemical donors, our engineered bacteria provides another solution to degrade the biofilm with better efficiency and cost. [Wiki](https://2020.igem.org/Team:Tsinghua) | [Project Promotion](https://video.igem.org/videos/watch/49923b39-ec64-4df6-b5d8-7bc48b1e221d)https://static.igem.org/peertube/streaming-playlists/hls/c025e263-4549-4c37-8d3e-9aa70a36c805/a01b14ae-2a33-4e4b-85ae-fc8a68035139-master.m3u8https://video.igem.org/videos/embed/pJbtFjzQunD8Xv3HyfvAT811110602020-10-30T17:17:30.955ZEnvironmentChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/iqewfmAYGiZRsr3MpTJakDhttps://video.igem.org/lazy-static/thumbnails/ce226a8a-e64e-41e8-91c1-d9ba4c2a1cfc.jpgShanghai_United: Degradation of P-cresol by Engineered Probiotics in treatment o... (2020) - Team...**Title:** Degradation of P-cresol by Engineered Probiotics in treatment of Chronic Kidney Disease **Abstract:** Uremic toxin p-cresol sulfate (pCS) accumulate inside the kidney due to Chronic Kidney Disease, further exacerbating harm. We aim to engineer probiotics that can be consumed by patient, express the target gene into enzymes to degrade p-cresol, the precursor of pCS. Since p-cresol is produced from phenylalanine and tyrosine in diet, we created tyrosine inducer gene, which controls the expression of polyphenol oxidase (PPO) ¬ñ enzyme that can degrade p-cresol. This system was tested with the Green Fluorescent Protein gene on the p15A linear plasmid. We extracted the pchC ¬ñ pchF ¬ñ pchA operon gene segment from Pseudomonas citronellolis and connected onto the p15A linear plasmid skeleton to assist PPO with degrading p-cresol under oxygen-deficient environment (intestine). Lastly, the plasmid was converted onto E.Coli Nissle 1917, an edible and harmless probiotic, while High Performance Liquid Chromatography was used to examine the ability of our finished product in degradation of p-cresol. [Wiki](https://2020.igem.org/Team:Shanghai_United) | [Project Promotion](https://video.igem.org/videos/watch/9421a111-f1e4-469d-bcbe-d55e7287ae68)https://static.igem.org/peertube/streaming-playlists/hls/8d0d8a66-70b9-458f-8b7a-3316a0f05817/8ade4975-bb3c-42b6-85c8-1cc947e7346e-master.m3u8https://video.igem.org/videos/embed/iqewfmAYGiZRsr3MpTJakD11840672020-10-30T16:55:48.080ZAsiaChinaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/5heCj66uXXEddkVEXWLUVohttps://video.igem.org/lazy-static/thumbnails/0bce2f98-5d59-44f6-89f3-b420ee41f431.jpgBNDS_China: BACLOTH (2020) - Team Presentation [English]**Title:** BACLOTH **Abstract:** Wild animal's leathers have great values for the clothing and fashion industry. Some luxury products like crocodile bag even require leather from rare species. This profitable business drives poachers to illegally hunt and hurt those wild animals. The demands of leather put the wild animals in a dangerous place and the harms caused by poaching for species conservation is unthinkable. Therefore, we aimed to integrate bacterial cellulose and protein crosslinking to manufacture artificial leather for animal conservation. Specifically, we utilized G. xylinus to synthesize bacterial cellulose. Moreover, we engineered E. coli and P. Pastoris to purify collagen-like protein and spider fibroin with SpyCatcher003 and SpyTag003 for protein crosslinking. This synthetic biological method provides an alternative way to supply raw material for leather industry, while ensuring animal and environment conversation. [Wiki](https://2020.igem.org/Team:BNDS_China) | [Project Promotion](https://video.igem.org/videos/watch/8bd38a4f-ed47-4c98-b21e-96637e8287eb)https://static.igem.org/peertube/streaming-playlists/hls/22a8da31-c354-4d6d-898d-e8e5ee515208/6a1984c7-57f6-4d9f-923c-dc0dae47be08-master.m3u8https://video.igem.org/videos/embed/5heCj66uXXEddkVEXWLUVo11830572020-10-30T17:13:54.583ZAsiaChinaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/vyzwL5i58XnUXN92MaPZxchttps://video.igem.org/lazy-static/thumbnails/cf8b83ef-c7a6-4659-8d02-c1fb7acac011.jpgHKUST: Green textile system: Biodegradable hagfish slime intermediate filament a... (2020) - Team...**Title:** Green textile system: Biodegradable hagfish slime intermediate filament and non-toxic chromoprotein-based dye for fabric production **Abstract:** The conventional textile industry is causing noxious pollution to the hydrosphere. Non-biodegradable Synthetic fibers, such as nylon, are causing microplastic pollution. While chemical dyes discarded in factories' sewage are mostly poisoning to aquatic lives. In view of the issue, our project targets to replace these fibers and dye by producing recombinant hagfish slime intermediate filaments (IF) with a chromoprotein dyeing system. A novel protein purification approach is also designed as an industrial solution. The hagfish slime IF is a competitive candidate to replace the polluting man-made fiber. While being biodegradable, it possesses outstanding mechanics that outscore Kevlar. When compared to other developing alternatives, like spider dragline silk, its simpler protein architecture facilitates the production process. We also developed an eco-friendly dyeing method for our threads. By fusing non-toxic chromoproteins to the IF, they can grant a wide range of vivid colors for the fabric, making it a viable clothing material. [Wiki](https://2020.igem.org/Team:HKUST) | [Project Promotion](https://video.igem.org/videos/watch/18312403-1fb1-49e7-a49d-d792cac70d97)https://static.igem.org/peertube/streaming-playlists/hls/ef657c4f-7b36-49c2-8c15-294b3f5eea5d/b3026682-cd90-46df-8593-3554b98a5fd9-master.m3u8https://video.igem.org/videos/embed/vyzwL5i58XnUXN92MaPZxc12000942020-10-30T17:28:28.112ZHongKongAsiaManufacturingYES2020 Team PresentationsNOhttps://video.igem.org/w/6AzyNVar63GZ8R7qcjaMfShttps://video.igem.org/lazy-static/thumbnails/3dae058f-c147-49aa-b2a4-a02171d3cdaf.jpgMingdao: Cleandy (2020) - Team Presentation [English]**Title:** Cleandy, a candy that cleans your teeth **Abstract:** Tooth decays are globally highly prevalent among children. Commensal oral microbiome balance plays a pivotal role in maintaining oral health. Nowadays, probiotic treatment is attractive but with limited effectiveness. As a result, we designed a probiotic that can eliminate Streptococcus mutans, the main cause of dental caries. We genetically modified a E. coli probiotic strain, Nissle (EcN) with pyruvate oxidase (SpxB) gene to generate H2O2, aquaporin (AQP) gene to facilitate H2O2 transport, and catalase (KatG) gene to revive from oxidative stress by decomposing H2O2 into oxygen and water. We successfully presented a proof of concept in H2O2 assay, growth inhibition and antagonistic test against the growth of S. mutans. Furthermore, we developed a prototype, Cleandy, a candy can clean your teeth. The Cleandy composed of sugar alcohols and our engineered probiotic (GM EcN) was demonstrated in our experiment showing effective antagonistic activity against S. mutans by producing H2O2. [Wiki](https://2020.igem.org/Team:Mingdao) | [Project Promotion](https://video.igem.org/videos/watch/e7b28b71-4008-4179-ac36-201c811c43ac)https://static.igem.org/peertube/streaming-playlists/hls/2d51aac4-6a1c-4f0c-8c06-e75d7918171a/8205a203-6176-4e98-b7e4-ef9c92d9d37a-master.m3u8https://video.igem.org/videos/embed/6AzyNVar63GZ8R7qcjaMfS104102232020-10-30T17:38:30.977ZHighSchoolAsiaTaiwanYES2020 Team PresentationsNOhttps://video.igem.org/w/faAq2ExvbZFXqugLTpJCRahttps://video.igem.org/lazy-static/thumbnails/051c7a13-7221-477a-952b-01ef7dbc4976.jpgNEU_CHINA: SARS Detector (2020) - Team Presentation [English]**Title:** Rapid detection of environmental Covid-19 using genetically engineered Ace2-PmrA-PmrB system **Abstract:** Traditional detection of environmental Covid-19 employs quantitative PCR method, with a minimum turnaround time of 6-hour. Here, we developed a rapid protocol, in which the presence of Covid-19 S protein is readily detected by genetically engineered Ace2-PmrA-PmrB system. In our work, we recombined the PmrA-PmrB two-component system derived from Salmonella to the surface of E. coli, and replaced the Fe(III) recognition site of PmrB with the core region of human angiotensin-converting enzyme 2 (ACE2)Ôºåwhich could recognize the surface spike glycoprotein (S protein) of SARS-CoV-2. Upon recognition, the downstream signal pathways and the reporter gene are activated. Furthermore, an amplifier (Hrp regulatory machinery) and extra cytoplasmic function (ECF) œÉ factor were used to improve the sensitivity of the biosensor. A TEV protease-based post-translational regulation system to reduce the leakage is also used. In summary, our system shortens the time frame and reduces the cost and lab labors for detection. [Wiki](https://2020.igem.org/Team:NEU_CHINA) | [Project Promotion](https://video.igem.org/videos/watch/34b6d6d1-6668-4ef4-951e-0c5c0e013cb7)https://static.igem.org/peertube/streaming-playlists/hls/72b6d7fe-9465-43b9-9381-f53d120caa93/e9274d7e-545c-4db4-9f01-fd52c53d0414-master.m3u8https://video.igem.org/videos/embed/faAq2ExvbZFXqugLTpJCRa9770362020-10-30T17:43:55.850ZAsiaDiagnosticsChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/2z3wTeULT5V8o2GsTkvbGhhttps://video.igem.org/lazy-static/thumbnails/2ca4fcef-762c-49d5-932a-9597d2d5bbef.jpgUFlorida: Aquatic Phosphorus Detection Using SCRIBE (2020) - Team Presentation [English]**Title:** Aquatic Phosphorus Detection Using SCRIBE **Abstract:** Team Florida 2020 takes inspiration from their 2019 project to improve and apply the novel biosensor technology that detects and records phosphorous levels to real-world ecological implications. This project couples the Synthetic Cellular Recorders Integrating Biological Events (SCRIBE) system with the naturally occurring PhoB-PhoR system in E.coli. In response to phosphorus, SCRIBE utilizes a reverse transcriptase enzyme to produce single stranded DNA which can be incorporated into the host-genome during DNA replication using the Beta Recombinase protein which results in a mutation within the bacterial chromosome. This system can be utilized to measure the amount of phosphorus in a body of water by modeling the fraction of cells that gain the mutation per generation. In the absence of a lab, the UF iGEM team seeks to model this hypothetical biosensor as part one of a two-part project. [Wiki](https://2020.igem.org/Team:UFlorida) | [Project Promotion](https://video.igem.org/videos/watch/43de8ac0-77f8-4cf3-bcca-bd899ce5c53e)https://static.igem.org/peertube/streaming-playlists/hls/0cb63e67-306c-4da8-bedd-730d76e2f1a0/931028db-8826-46b3-8fc9-0d5e25cc9933-master.m3u8https://video.igem.org/videos/embed/2z3wTeULT5V8o2GsTkvbGh10550202020-10-30T17:48:30.321ZUnitedStatesNorthAmericaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/inhkdubH1qwzXXRjoTV5e1https://video.igem.org/lazy-static/thumbnails/e7984a22-ce48-48ca-be6a-d9934bfddc16.jpgLund: Protecto (2020) - Team Presentation [English]**Title:** Protecto - A biopesticide production system for preventing late blight in potatoes **Abstract:** We have designed a system for producing antimicrobial peptides (AMPs) and attempted to demonstrate that it is functioning. Escherichia coli BL21 (DE3) and pET-11 is used to produce a cocktail of AMPs with either Thioredoxin A or Glutathione S-Transferase as a fusion partner, that will be cleaved by recombinant Enterokinase carried by another plasmid in the same cell. After AMP and subsequent protease expression, we will trigger the already developed Deadman kill switch and sonicate the cells in order to make sure that no live genetically modified microorganisms will be present in the product and that the AMPs are free in the solution. The resulting product is a cell extract containing soluble AMPs, which will serve as a biopesticide. We have also developed a computer model that generates and evaluates peptide sequences based on their potential as antifungal agents. [Wiki](https://2020.igem.org/Team:Lund) | [Project Promotion](https://video.igem.org/videos/watch/5e1ed83e-19c3-4e8a-a6ca-8bb4aa1197d3)https://static.igem.org/peertube/streaming-playlists/hls/8ca40a79-0efe-42d8-b4e5-8bb3ef8ecbba/3f0efdbb-2d7a-4493-886a-716ab6b3b5fc-master.m3u8https://video.igem.org/videos/embed/inhkdubH1qwzXXRjoTV5e110490252020-10-30T17:53:39.692ZSwedenEnvironmentEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/xprsn6eQpxBbj8LAMK45m1https://video.igem.org/lazy-static/thumbnails/1d30efcc-da8c-4aa8-b2df-0dec2523862b.jpgOUC-China: Logitch (2020) - Team Presentation [English]**Title:** Logitch: Logic Gates and RNA Switch **Abstract:** In the future, more work must be done by computer, such as detecting virus and monitoring health in vivo. Such a function can only be achieved by biological computer working in wet environment, which plays an important role that traditional computer cannot replace. Since the basic function unit of electronic computer is implemented through logic gates, we incorporated a series of logic gates which were built by toehold and 3WJ repressor, and supplemented current lack of types with our own design. We also built more complex multi-input logic gates using basic logic gates. In order to show the wide application prospect of these logic gates, we used them in the construction of adder and subtractor, as well as virus detection. Biocomputer may have various possibilities in the next few years, and we hope our project can have some impact on its development. [Wiki](https://2020.igem.org/Team:OUC-China) | [Project Promotion](https://video.igem.org/videos/watch/abfc0296-12a8-4c3b-a9af-59b59e4c2bb8)https://static.igem.org/peertube/streaming-playlists/hls/fe511793-3f28-4e64-a65d-8936eba2b3e0/34b246f0-4699-4f0c-808a-08b21c35c68e-master.m3u8https://video.igem.org/videos/embed/xprsn6eQpxBbj8LAMK45m111370332020-10-30T18:01:59.214ZAsiaChinaInformationProcessingYES2020 Team PresentationsNOhttps://video.igem.org/w/jb2RqvkBaio4ZrPxxf62vZhttps://video.igem.org/lazy-static/thumbnails/81204c8b-968f-4660-88ae-8e556c6d6814.jpgXHD-Wuhan-China: Mars-PhD: decrease Mars soil pH with Deinococcus radiodurans (2020) - Team Prese...**Title:** Mars-PhD: decrease Mars soil pH with Deinococcus radiodurans **Abstract:** Phosphorus is an essential element for plants. Martian soil, while rich in phosphorus, is still unable to sustain a growing plant because the insoluble phosphorus cannot be absorbed directly by plants. Some microorganisms can secrete organic acids, decrease pH and promote dissolution of insoluble phosphates. Considering the higher radiation level on Mars, in this project we choose Deinococcus radiodurans (DR) as our chassis organism. We transformed DR by cloning gcd gene from Escherichia coli to promote dissolution of insoluble phosphates. Glucose dehydrogenase (GDH) and Pyrroloquinoline quinone (PQQ) genes are constitutively expressed in DR to form holoenzyme to realize the conversion of glucose into gluconic acid. To improve efficiency, we also transformed a synthesized gabY gene into DR to promote the binding between GDH and PQQ to increase the activity of GDH. We hope to provide new solutions to transform martian soil and explore the possibility of growing crops on Mars. [Wiki](https://2020.igem.org/Team:XHD-Wuhan-China) | [Project Promotion](https://video.igem.org/videos/watch/0c1f15e8-d3ae-4712-a60e-ce16195e707c)https://static.igem.org/peertube/streaming-playlists/hls/932b1332-3061-4f0c-8981-cc101d910a37/11fc1997-1ce1-4180-88dd-250f71807b98-master.m3u8https://video.igem.org/videos/embed/jb2RqvkBaio4ZrPxxf62vZ8440482020-10-30T18:12:59.807ZHighSchoolChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/sdyvQGTPnxd7Rogx1XMnovhttps://video.igem.org/lazy-static/thumbnails/e870dae5-fd1d-4809-bc97-b584ec9fc266.jpgTongji_China: SHARK: Seek Heme And Reflect cracK (2020) - Team Presentation [English]**Title:** SHARK: Seek Heme And Reflect cracK **Abstract:** Chronic lower gastrointestinal bleeding is a manifestation of lower gastrointestinal disorders. It features small amount of bleeding and patients' unawareness. To locate the bleeding site, endoscope is commonly used in clinics. However, endoscope puts heavy discomfort to patients and the time-consuming process postpones subsequent treatment, which becomes great obstacles of diagnosis and therapy. To solve this throng problem, team Tongji China designed Hetoul, the engineered bacteria that can realize more rapid localization of the bleeding site in lower gastrointestinal tract. The mechanism is: Hetoul recognizes the heme released by broken red blood cells. When heme is recognized, Hetoul will express gas vesicle protein, which can be detected by ultrasonic imaging. The location of Hetoul shows the location of bleeding site, which can provide guide to subsequent treatment. Further, Hetoul can also play the role of a diagnosis tool for lower gastrointestinal diseases like colorectal cancer. [Wiki](https://2020.igem.org/Team:Tongji_China) | [Project Promotion](https://video.igem.org/videos/watch/71bdde29-ccdd-42b0-a750-9cd0ccb8b307)https://static.igem.org/peertube/streaming-playlists/hls/d44e9172-dd2d-4754-b648-f273343c17c5/68c814c7-12b6-4e4a-b962-b37d9e6db257-master.m3u8https://video.igem.org/videos/embed/sdyvQGTPnxd7Rogx1XMnov9940332020-10-30T18:16:00.132ZChinaAsiaDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/rGEQfsQtAHbDgkwybxmwJ1https://video.igem.org/lazy-static/thumbnails/5430c2b2-eb3f-46fd-aee4-2570cfdf8a75.jpgUPF_Barcelona: Hormonic (2020) - Team Presentation [English]**Title:** Hormonic: restoring thyroid homeostasis via an intein-mediated biosensor **Abstract:** One-third of the treated hypothyroidism patients do not respond correctly to current therapies. To solve that, a system capable of restoring hormonal feedback was designed, offering an alternative to the 10% of Spaniards and 5% of the global population that suffer from this endocrine disorder. Its functioning is based on our successfully engineered intein-mediated Escherichia coli biosensor, which showed a great response to distinct T3 thyroid hormone levels giving rise to different superfolder GFP concentrations. This was designed to be coupled to a PID controller, which computes the dosage that compensates for hormonal disbalances. As a proof of concept for the validation of this regulatory mechanism, a lactone cell circuit incorporating a turbidostat was developed, showing a high correlation between the experimental and modelling results. Finally, a detailed future implementation plan was defined so that it included the necessary steps towards a feasible implementation of this innovative treatment. [Wiki](https://2020.igem.org/Team:UPF_Barcelona) | [Project Promotion](https://video.igem.org/videos/watch/356e4630-9be5-4a8e-b249-cad9b133b56f)https://static.igem.org/peertube/streaming-playlists/hls/d02225f6-f36e-434c-8f18-e0991241dc0c/d9c88371-f88d-430c-ba33-07c8128bcd80-master.m3u8https://video.igem.org/videos/embed/rGEQfsQtAHbDgkwybxmwJ1105305452020-10-30T18:19:44.112ZSpainTherapeuticsEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/fPvUh7D5aLd3fi1tXnuc1vhttps://video.igem.org/lazy-static/thumbnails/fddf8f0e-bd31-409f-a45f-5978a0f1a18a.jpgXH-China: Keratinase Skin Exfoliation (2020) - Team Presentation [English]**Title:** Keratinase Skin Product **Abstract:** Applying synthetic biology, our team addressed several skin concerns by devising a gentle skincare product. Compared to the traditional way: either chemical peeling or physical rub, we applied enzyme keratinase to safely exfoliate the skin. Our products, based on thorough research and empirical applications, guarantee the gentleness, exfoliating excess cuticles without destroying the skin barrier. A series of skin issues, like dryness, itching, and redness, will be, therefore, greatly relieved. [Wiki](https://2020.igem.org/Team:XH-China) | [Project Promotion](https://video.igem.org/videos/watch/c14b412a-de38-4f83-8b5e-9093323a8114)https://static.igem.org/peertube/streaming-playlists/hls/78025366-bfd4-49b1-b024-1caee4621279/306c9a81-4151-4b30-8e55-d834d47ec50c-master.m3u8https://video.igem.org/videos/embed/fPvUh7D5aLd3fi1tXnuc1v12000372020-10-30T18:27:26.216ZChinaAsiaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/22EeLECCkTrMngrQH8Qym9https://video.igem.org/lazy-static/thumbnails/f5a19140-2a02-49eb-af9f-0fa2d82dcb94.jpgDuesseldorf: Mossphate (2020) - Team Presentation [English]**Title:** Mossphate: Yesterday's wastewater can fuel tomorrow's crops **Abstract:** Phosphate is an essential element that fulfills diverse cellular functions in all living organisms. It is a key limiting factor of plant growth and therefore used for the production of fertilizers. However, phosphate is a non-renewable resource and its natural reserves are dramatically decreasing, while the growing world population has led to a growing demand of phosphate fertilizers. Our project is to accumulate phosphate from wastewater and reuse it for the agricultural sector using the moss Physcomitrella patens. The moss has been genetically engineered to accumulate phosphate in the form of polyphosphate granules through the introduction of polyphosphate kinases and additional phosphate transporters. With these modifications, we hope to provide a sustainable way to filter phosphate from wastewater and grow phosphate-rich moss plants. These mosses can be directly used as fertilizer to provide crops with recycled phosphate. [Wiki](https://2020.igem.org/Team:Duesseldorf) | [Project Promotion](https://video.igem.org/videos/watch/60e0c39c-238d-4c9a-82c4-58b99a3067af)https://static.igem.org/peertube/streaming-playlists/hls/08547273-7b69-4927-9890-4ae10eb8f220/1f0737bc-5c9e-40cc-b1c3-185c9aba95e2-master.m3u8https://video.igem.org/videos/embed/22EeLECCkTrMngrQH8Qym98450712020-10-30T18:32:15.642ZEuropeEnvironmentGermanyYES2020 Team PresentationsNOhttps://video.igem.org/w/6xF1sDWy6D625VnzYBof2Khttps://video.igem.org/lazy-static/thumbnails/fff35df6-dd90-4d9e-bc0d-80cf84a4ebcc.jpgQdai: P. coli (2020) - Team Presentation [English]**Title:** P. coli: Engineering E.coli to have an increased capacity of phosphorus accumulation **Abstract:** While phosphorus is one of the most important resources for agricultural food production, it becomes a great driver of water pollution when it enters the environment. Sometimes the pollution causes health problems to humans and animals. Further, phosphorus is expected to be depleted in about 50 years, so the recovery and recycling is a big issue. We looked into phosphorus metabolism of bacteria and hope to enhance its capacity of phosphorus accumulation by engineering E.coli to increase polyphosphate kinase and decrease exopolyphosphatase. We believe that our project contributes to sustainable development goals (SDGs). [Wiki](https://2020.igem.org/Team:Qdai) | [Project Promotion](https://video.igem.org/videos/watch/48a16675-10bf-4dee-8a3b-d0c65ddac4f8)https://static.igem.org/peertube/streaming-playlists/hls/2ce9ca26-f36d-4c62-a2dc-11bc8ecc9fbd/46b7e9a2-5ed4-4c73-b32e-d2335004dbcb-master.m3u8https://video.igem.org/videos/embed/6xF1sDWy6D625VnzYBof2K11840512020-10-30T18:40:28.096ZEnvironmentJapanAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/7hE17Kzhm448WoiW92NVCEhttps://video.igem.org/lazy-static/thumbnails/762d77bc-62fa-41b5-a5a4-212a6e77e95f.jpgNWU-CHINA-B: Let Kaempferol Dissolve (2020) - Team Presentation [English]**Title:** Let'K dissolve (Let Kaempferol dissolve) **Abstract:** Kaempferol has excellent anti-inflammatory and antiviral abilities, and is a common ingredient in Chinese herbal medicines against COVID-19. However, the poor water solubility limits its application. Two UDP glycosyltransferases were obtained by constructing recombinant engineering bacteria to catalyze the synthesis of the derivatives of kaophenol, astragalin and kaophenol-3-glucose-7-oxygen-rhamnoside. The differences of water-soluble and anti-inflammatory properties between the two derivatives and kaempferol were compared, and the optimal conditions of enzymatic reaction were found through modeling. [Wiki](https://2020.igem.org/Team:NWU-CHINA-B) | [Project Promotion](https://video.igem.org/videos/watch/57e4869d-fda0-4d6c-99db-8e60b2436612)https://static.igem.org/peertube/streaming-playlists/hls/32ea26df-9042-4170-8551-a5d6c3ff2802/0447ca66-5f12-43dc-a527-291e1f4112b7-master.m3u8https://video.igem.org/videos/embed/7hE17Kzhm448WoiW92NVCE9430172020-10-30T18:45:51.966ZAsiaChinaTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/ahCkCUcqC6NDYo7dfGfBkphttps://video.igem.org/lazy-static/thumbnails/df37bcbe-f15d-4ccc-9640-7965e207c48d.jpgNOFLS_YZ: Discovery of FXR antagonist against T2DM (2020) - Team Presentation [English]**Title:** Discovery of FXR antagonist against T2DM **Abstract:** Farnesoid X receptor (FXR), as a member of nuclear receptors is tightly associated with glucose metabolism. Accumulated evidence indicated that FXR antagonist relates to the treatment of type 2 diabetes mellitus (T2DM), although the related mechanisms remain unclear. Therefore, our aim is to screen a small molecule FXR antagonist as a probe to explore the mechanism of FXR regulating glucose metabolism. Here, we used AlphaScreen assay to screen FXR antagonist. Among the compounds, H7 was finally selected for its highly antipathogenic activity against FXR. Finally, H7 antagonized GW4064-induced reporter gene stimulation in transactivation assay, indicating that H7 was a FXR antagonist. [Wiki](https://2020.igem.org/Team:NOFLS_YZ) | [Project Promotion](https://video.igem.org/videos/watch/2fc9e9fb-bece-48cc-ab00-469ad1d64dcd)https://static.igem.org/peertube/streaming-playlists/hls/4b348aed-c002-4b17-9346-a130899cfbc1/47a3f87c-8831-4646-bd51-5c7dd4517ada-master.m3u8https://video.igem.org/videos/embed/ahCkCUcqC6NDYo7dfGfBkp9420222020-10-30T18:49:47.323ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/jSf4qXeV2QSHXddfrvj1UThttps://video.igem.org/lazy-static/thumbnails/a28edd0a-8743-45bb-833a-87ef9a9a8c85.jpgLethbridge_HS: tPectin-ACE (2020) - Team Presentation [English]**Title:** tPectinACE: Targeting Pectin to Accelerate Compost Enzymatically **Abstract:** Landfills are growing and a large portion of the items occupying this landfill space is food waste. When food waste enters landfills, there are a variety of environmental consequences. This is due to the copious amounts of greenhouse gases emitted during the production of our food. Additionally, food shipping utilizes cardboard and plastic for shipping, which harms our environment significantly. Although food waste disposal services are available, they release methane and are not economically productive. Furthermore, composting facilities do assist in combating the issue of food waste but are oftentimes not readily available or advertised. While some do have access to home composting, this is an inefficient method of reducing food waste and may attract pests. Therefore, we propose a system that employs an engineered biological catalyst that breaks down food waste in a closed container, keeping animals out and ensuring chemicals do not enter the environment. [Wiki](https://2020.igem.org/Team:Lethbridge_HS) | [Project Promotion](https://video.igem.org/videos/watch/e345f8b9-bb2e-4454-a930-0d723262fc77)https://static.igem.org/peertube/streaming-playlists/hls/98c85940-0e56-4362-8b7b-48bedc87c5bb/05731671-70e7-4325-abc8-4162cdc84719-master.m3u8https://video.igem.org/videos/embed/jSf4qXeV2QSHXddfrvj1UT9880242020-10-30T18:54:03.492ZNorthAmericaCanadaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/mT9sRBit2885x8o1fqpTFAhttps://video.igem.org/lazy-static/thumbnails/10cb6755-22f5-4d2b-af56-2ffd4da5adeb.jpgGreatBay_SCIE: ShroomSweeper (2020) - Team Presentation [English]**Title:** ShroomSweeper **Abstract:** We produced ALFA (Aptamer Lateral-Flow Assay), an efficient, membrane-based test kit for amatoxins. Replacing antibodies with aptamers - a type of oligonucleotide - in LFIAs (Lateral Flow ImmunoAssay), several drawbacks that antibodies present (low heat stability, heavy reliance on immunogenicity of target molecules, etc.) are eliminated. Simultaneously, we developed a sandwich assay involving both aptamers and antibodies, combining the benefits of using either ligand. scFvs (Single-Chained antibody Fragments) have simpler structures and can be made through regular protein synthesis procedures, while conventional processes involve the mammalian immune system. Applying ELISA (Enzyme-Linked ImmunoSorbent Assay) to our design, we immobilize purified scFv onto the ALFA pad, then coat our samples - amanitin - onto the scFvs. BSA-conjugated aptamers are then coated to the amanitin. Hopefully, this test kit will assist in identification of common species of poisonous mushrooms, reducing cases of poisonings worldwide. [Wiki](https://2020.igem.org/Team:GreatBay_SCIE) | [Project Promotion](https://video.igem.org/videos/watch/44d243df-3b8a-4b04-8e2a-64844db2df67)https://static.igem.org/peertube/streaming-playlists/hls/a91aebc6-3068-4e1f-a3da-4485e9f014fc/0207a788-c981-4868-8acc-2a90949f296a-master.m3u8https://video.igem.org/videos/embed/mT9sRBit2885x8o1fqpTFA118805822020-10-30T19:29:23.805ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/p5PkXJd5FfGJ6snJgtfp9vhttps://video.igem.org/lazy-static/thumbnails/d36000b0-c436-44be-b85f-cf1fcb2e84ed.jpgThessaly: Amalthea (2020) - Team Presentation [English]**Title:** Amalthea: a modular platform for monitoring gastrointestinal health **Abstract:** Amalthea is a complete, personalized, modular platform, which provides diagnosis, evaluation of the gut flora, and treatment of IBDs. A non-invasive encapsulated detection module, consisting of a genetically engineered bacteria-based system and an electronic system, will identify metabolite deficiencies directly correlated to IBDs, that may lead to malnutrition. Exploiting a bio-electronic interface to enable real-time monitoring on the patient's smartphone. Based on this personalized data, a biosynthetic module will respond with selective production of the missing metabolites, thus eliminating that nutritional deficit and relieving the patient from the symptoms. Our product is designed according to healthcare experts and international standards, to ensure biosafety. With this work, we aspire to provide cost-efficient and innovative solutions for detecting intestinal deformities and improving the gut microbiome, while facilitating one of humans' essential needs ¬ñ to enjoy one's food. [Wiki](https://2020.igem.org/Team:Thessaly) | [Project Promotion](https://video.igem.org/videos/watch/36130d4c-2fc0-4648-ba73-6d37c8cabf8c)https://static.igem.org/peertube/streaming-playlists/hls/baee5754-4e84-4107-9e15-24a0c164aa69/bc5f8b0c-c523-4ef1-9e43-57d474fa6021-master.m3u8https://video.igem.org/videos/embed/p5PkXJd5FfGJ6snJgtfp9v119803302020-10-30T19:54:48.314ZEuropeFood&NutritionGreeceYES2020 Team PresentationsNOhttps://video.igem.org/w/vp3ASS7L5z1v6Qe9uqpnmJhttps://video.igem.org/lazy-static/thumbnails/ebe9aec3-8a77-442e-ba8b-244bf81d1c41.jpgEdinburgh: Finding NEMO (2020) - Team Presentation [English]**Title:** Finding NEMO - The transcription-only biosensing platform **Abstract:** We are Edinburgh's iGEM team, Finding NEMO! This year, we wanted to create something truly innovative and impactful. That's why we developed Finding NEMO, a transcription only and cell-free system for biosensing. By stripping back the material necessities, we made biosensing faster, cheaper, safer and more accessible. To achieve this we have utilised fluorescent RNA aptamers to replace the conventional GFP protein reporters. We then devised an isothermal amplification and rudimentary logic processing system mediated by synthetic RNA transcription bubbles and T7-RNA-Polymerase. To this base system, we have studied the integration of conventional biosensing modalities such as transcription factors, transcriptional riboswitches and direct oligonucleotide sensing. Our case study application is environmental water testing and we have spoken to industry leaders and regulatory authorities. At every stage we have championed open science and the UN's sustainable development goals to ensure our design is beneficial to all and the environment. [Wiki](https://2020.igem.org/Team:Edinburgh) | [Project Promotion](https://video.igem.org/videos/watch/a28573d1-0476-41a1-8f74-acd394f181b6)https://static.igem.org/peertube/streaming-playlists/hls/ee10bb21-23ab-4b91-b71e-b6b0bf9739be/7e002be4-17b7-48e2-b572-03c2d32022c0-master.m3u8https://video.igem.org/videos/embed/vp3ASS7L5z1v6Qe9uqpnmJ9350932020-10-30T20:10:37.346ZEnvironmentUnitedKingdomEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/rsjdYyVS9aePJr9rEvYLv1https://video.igem.org/lazy-static/thumbnails/973b0409-972e-400a-af92-9b1634d4135d.jpgMontpellier: Phagent: a phage-mediated reprogramming of the tumor microbiome to ... (2020) - Team...**Title:** Phagent: Phage-mediated reprogramming of the tumor microbiome to fight cancer **Abstract:** Phagent is a global approach against cancer involving bacteria of the tumor microbiome and phages. Our goal is to engineer phages that will hack the tumor microbiome and make the infected bacteria produce oncolytic molecules. We focused on dacA, which triggers the cGAS-sting pathway, azurin which interferes with the tumor suppressor p53, and VHH-PL1, a nanobody interacting with the immune system. The phages are injected in the tumor and transform the bacteria of the microbiome. The choice of the phage depends uponthe target cancer and its microbiome. Then, the bacteria will produce the therapeutic proteins that will interfere with cancer cells and trigger apoptosis. Phagent would complement classical treatments that may be not effective to fight some types of tumor. [Wiki](https://2020.igem.org/Team:Montpellier) | [Project Promotion](https://video.igem.org/videos/watch/1b23db34-8049-4ae1-bced-7330d0defa4f)https://static.igem.org/peertube/streaming-playlists/hls/ce210908-336f-4bfe-ba68-24a159e51352/56905216-d8b6-4f77-851c-a2119899c600-master.m3u8https://video.igem.org/videos/embed/rsjdYyVS9aePJr9rEvYLv111850852020-10-30T20:55:56.620ZFranceEuropeTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/5tFeMMmEjqzR8YyE1DxQ7Lhttps://video.igem.org/lazy-static/thumbnails/2971dfd7-8cc9-4c55-9e69-0d1a5d6c74a8.jpgAmsterdam: Forbidden FRUITS (2020) - Team Presentation [English]**Title:** Forbidden FRUITS: stable microbial production strategies for non-native compounds **Abstract:** Genetically engineered cellular systems can be used to produce industrially valuable compounds in a sustainable way. A challenge is that it is more beneficial for cells to use their resources exclusively for growth, resulting in a loss of production ability. Therefore, we have developed Forbidden FRUITS, a pipeline that can solve this problem by calculating and optimizing engineering strategies to couple a product forming pathway to microbial growth. Multiple databases, constraint-based programming and gene-protein-reaction associations are used to devise suitable strategies. These strategies are then optimized using pathfinding methods and sequence optimization. As proof-of-principle, we applied Forbidden FRUITS to salicylic acid, lactate and mannitol production in Synechocystis PCC6803, lactate in Synechococcus UTEX 2973 and salicylic acid in Escherichia Coli. Forbidden FRUITS is shown to be flexible and allow for the fast development of stable production strains, making the full-potential of biotechnology evermore attainable. [Wiki](https://2020.igem.org/Team:Amsterdam) | [Project Promotion](https://video.igem.org/videos/watch/c7ae3f52-f3c0-4ca9-83c8-88ef3865a42a)https://static.igem.org/peertube/streaming-playlists/hls/2441d14b-0440-49cf-8ae0-1e3f5a551df0/ac059f4f-5bbe-4510-9d37-d94a26642b7f-master.m3u8https://video.igem.org/videos/embed/5tFeMMmEjqzR8YyE1DxQ7L106301712020-10-30T21:02:34.511ZNetherlandsEuropeInformationProcessingYES2020 Team PresentationsNOhttps://video.igem.org/w/aHfndtz5naK9sRjZ8QX8SFhttps://video.igem.org/lazy-static/thumbnails/7a7f40b7-41d8-421a-b391-8254eb925e04.jpgIISER_Bhopal: THE BIG PIE: Beta Cells In Gut Produce Insulin using E.coli (Tackl... (2020) - Team...**Title:** THE BIG PIE: Beta Cells In Gut Produce Insulin using E.coli (Tackling Diabetes Without Injections!) **Abstract:** Globally, over 463 million adults suffer from diabetes, with the number estimated to exceed 575 million by 2030. Insulin, the ideal therapeutic for diabetics worldwide, is available only in an injectable form. Our project presents an out-of-the-box approach to tackle diabetes based on transdifferentiation. Our delivery vector, E. coli Nissle 1917, would be programmed to attach to crypt cells through expression of a crypt cell-specific antibody Lgr5. This would be followed by translocation of the three transcription factors - PDX1, MAFA & NGN3 - via the Type 3 Secretion System (a molecular syringe) into the cells to convert them into glucose-responsive beta-islet like cells. An inbuilt kill switch would ensure organisms egested from the body do not survive. Proof of concept will be established in the E. coli K-12 strain. The objective is to design a smart and viable alternative for insulin injections. [Wiki](https://2020.igem.org/Team:IISER_Bhopal) | [Project Promotion](https://video.igem.org/videos/watch/f866d71b-ebbe-43b1-941c-cef802e18e9d)https://static.igem.org/peertube/streaming-playlists/hls/4ea49882-139b-44c7-9a58-d9ee1a8fceaf/b2c284b4-b1eb-4701-acfc-e1c830da5912-master.m3u8https://video.igem.org/videos/embed/aHfndtz5naK9sRjZ8QX8SF113101292020-10-30T21:13:38.283ZAsiaIndiaTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/ni4fgVGyhyqcKam6vZ6Yoahttps://video.igem.org/lazy-static/thumbnails/f8fd15a8-baeb-4041-87ca-c602a04108d8.jpgNAU-CHINA: SLIM (2020) - Team Presentation [English]**Title:** Soil lead immobilization magician(SLIM):earthworms carrying engineered Bacillus subtilis **Abstract:** Lead pollution in soil has brought great losses to agriculture and human health. However, traditional approaches such as physicochemical repair and plant enrichment will cause other hazards and have lower efficiency, respectively. Therefore, it is urgent to develop new strategies for lead pollution treatment. This year, to make up for the deficiency of traditional methods, NAU-CHINA combined earthworms (Eisenia foetida) and bacteria (Bacillus subtilis) to immobilize soil lead. Earthworms was used as carrier of bacteria, and we transformed bacteria to secrete phytase specifically by using oxygen-regulated switch to hydrolyze phytate in the intestines of earthworms. Lead ions can be precipitated into insolubles by combining with phosphate and chloride ions, thus purifying soil. Meanwhile, we added suicide module considering the biosafety of using genetically modified organisms in the environment. Affected by COVID-19, we cannot do experiments. So we collected data from literature and constructed mathematical models to predict results and feasibility. [Wiki](https://2020.igem.org/Team:NAU-CHINA) | [Project Promotion](https://video.igem.org/videos/watch/51ad3c62-6367-41a1-9be4-6050ea1cba0f)https://static.igem.org/peertube/streaming-playlists/hls/ac718e72-bd8c-44d1-b56b-0c0cb63c679d/ded8f92d-ad2d-41ec-91d0-d969a921a6b6-master.m3u8https://video.igem.org/videos/embed/ni4fgVGyhyqcKam6vZ6Yoa10180502020-10-30T21:23:40.530ZAsiaChinaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/9A4X8EaSG96pTBPwmWofqahttps://video.igem.org/lazy-static/thumbnails/0ceba327-215b-4e5d-802d-7e52dd6a7b43.jpgMichiganState: Bee-tox (2020) - Team Presentation [English]**Title:** BeeTox **Abstract:** Since 2005, bee populations have been declining at an alarming rate. Our team decided to address one major factor contributing to these deaths: pesticides. Project BeeTox is a probiotic that allows bees to detoxify imidacloprid, a common neonicotinoid pesticide. We divided into 3 subteams to address different aspects of the project. The Device team designed a feeder to administer the probiotic in sugar water, incorporating an image recognition biocontainment mechanism. The Gene Engineering team worked to create a designer strain of Snodgrassella alvi, a microbe that colonizes the bee gut and can be effectively transformed. Our efforts were directed towards modifying the type I secretion system of S. alvi to export enzymes for detoxifying imidacloprid. The Bioinformatics team computationally modelled imidacloprid-degrading enzymes and analyzed the metabolic profile of imidacloprid breakdown. Successful implementation of this technology has the potential to save countless bees and the plants they pollinate. [Wiki](https://2020.igem.org/Team:MichiganState) | [Project Promotion](https://video.igem.org/videos/watch/a08cc910-b458-422d-9be4-d09fb20ae1b4)https://static.igem.org/peertube/streaming-playlists/hls/458ad502-d235-4eb7-afea-b8ecf2470cc1/bcbb2cba-0589-4645-b615-ddf65b54a634-master.m3u8https://video.igem.org/videos/embed/9A4X8EaSG96pTBPwmWofqa11550312020-10-30T21:35:20.492ZEnvironmentUnitedStatesNorthAmericaYES2020 Team PresentationsNOhttps://video.igem.org/w/gFGiF8X1PMam3gq7u4vNTrhttps://video.igem.org/lazy-static/thumbnails/5ec8b4bc-64d0-4f56-abd6-cae0e5918e5f.jpgHK_SSC: Production Of PdRp-CBD Complex For Recovery Of Palladium From Palladium ... (2020) - Team...**Title:** Production of PdRp-CBD complex for recovery of palladium from palladium ions **Abstract:** Palladium is widely adapted in industrial processes such as catalytic converters or ceramic capacitors. It also holds biomedical applications such as acting as a drug carrier and is utilised in cancer treatment. However, palladium is an environmental pollutant and difficult to be recycled. In this project, twenty-five palladium(II) reducing peptides (PdRp) are modified from a selection of known palladium binding peptides. The PdRp are fused to a cellulose binding domain 3 (CBD 3) derived from Clostridium thermocellum which acts as an affinity tag. The PdRp-CBD complex is expressed in Escherichia coli BL21(DE3) in pETBlue-2 vector and purified using regenerated amorphous cellulose (RAC). Peptide-Palladium interactions are determined by computational methods of Molecular Dynamics. Downstream analysis and further experiments will be performed to determine the efficiency and performance of the PdRp with potassium hexachloropalladate. [Wiki](https://2020.igem.org/Team:HK_SSC) | [Project Promotion](https://video.igem.org/videos/watch/ccf9f95b-a8d0-4930-986c-c4a50c2d013b)https://static.igem.org/peertube/streaming-playlists/hls/7f03ecf4-9257-4c49-b55c-5d05581bcfd7/d3ab8220-37c8-4895-95e4-60f83eac9067-master.m3u8https://video.igem.org/videos/embed/gFGiF8X1PMam3gq7u4vNTr11910332020-10-30T21:57:10.458ZHighSchoolHongKongAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/wNcxLpdJzCg3843NVyMjAhhttps://video.igem.org/lazy-static/thumbnails/881262b1-d891-4c8a-b6df-4cec852e0635.jpgEvry_Paris-Saclay: Rosewood (2020) - Team Presentation [English]**Title:** Rosewood **Abstract:** Illegal wildlife trade is a scourge that affects biodiversity, destroys the fragile equilibrium of natural ecosystems, leads to accelerated extinction of species, and adversely impacts humankind. Elephant's ivory, rhinoceros' horn, tiger's fur are all well-known examples, but the most trafficked wildlife product in the world is Rosewood. To the naked eye, Rosewood logs are indistinguishable from other non-protected wood species. However, it can be distinguished at the genetic level with high precision. Here, we are developing cheap, portable and easy-to-use biosensors, based on toehold switches. Our biosensor uses engineered molecular machinery of the common gut bacterium to sense nucleic acid signatures specific to the Rosewood tree. We demonstrate how to go from the design to the final application, identifying the trafficked Rosewood to the family, phylum, or the species level. Deployment of portable and cost-effective rosewood biosensors will enable on-site surveillance and help to protect this rare and valuable species. [Wiki](https://2020.igem.org/Team:Evry_Paris-Saclay) | [Project Promotion](https://video.igem.org/videos/watch/f07a3e9c-0481-49a2-8907-6383c2dbf78f)https://static.igem.org/peertube/streaming-playlists/hls/f9657d5f-0634-4902-9808-1083f38816f4/0635bd58-85a5-4f47-888a-06f7991d33f3-master.m3u8https://video.igem.org/videos/embed/wNcxLpdJzCg3843NVyMjAh119901652020-10-30T22:06:48.999ZFranceEuropeNewApplicationYES2020 Team PresentationsNOhttps://video.igem.org/w/33MAVRYi2WrgNLMGz6jgBehttps://video.igem.org/lazy-static/thumbnails/a35e4429-ccac-4b5b-aa68-3680034c8c2f.jpgSZ-SHD: Insecticidal Missile: construction of a novel biopesticide using enginee... (2020) - Team...**Title:** Insecticidal Missile: construction of a novel biopesticide using engineered Escherichia¬†coli **Abstract:** Locust plague is a common natural disaster striking many regions, that would severely damage agriculture activities and result in commercial loss. The control of locusts via spraying of pesticides has been widely applied despite the high industrial cost and ecological problems could potentially be contributed. Conversely, the research in Bt toxins (a class of toxic proteins produced by Bacillus thuringiensis) and the chitinolytic enzymes suggested expectant toxicity against locusts. In our project, we constructed two strains of engineered bacteria to synthesis both proteins, whereas the insertion of a plasmid contains a UV inducible promoter and a T4 lysis gene was used as a 'suicide switch', programed for automatic lysis to release these toxins under ultraviolet radiation. [Wiki](https://2020.igem.org/Team:SZ-SHD) | [Project Promotion](https://video.igem.org/videos/watch/e184c410-807f-4d33-8d82-f1af368fcbe1)https://static.igem.org/peertube/streaming-playlists/hls/1095de44-04e8-4ec4-95e6-5a91c17afd57/4749530c-34a9-4b75-bf65-efc4f8a4bef6-master.m3u8https://video.igem.org/videos/embed/33MAVRYi2WrgNLMGz6jgBe7940362020-10-30T22:18:39.975ZAsiaChinaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/jxhinzwyVYkBvwXLRNJszxhttps://video.igem.org/lazy-static/thumbnails/cb31e1df-1b15-4008-8b41-91911e0d6ebb.jpgBIT-China: Lemon CP (2020) - Team Presentation [English]**Title:** Lemon CP **Abstract:** Our team BIT-China designed and constructed a double oscillation dynamic regulation system to produce flavonoids. By using this system, we can use an intelligent dynamic regulation method to regulate E. coli and Yeast, to match the growth rate, upstream, and downstream pathways of the two. It also means that we successfully produce saccharoid using a combination of E. coli and Yeast's advantages in their respective production processes. [Wiki](https://2020.igem.org/Team:BIT-China) | [Project Promotion](https://video.igem.org/videos/watch/f239fea2-5e8e-4bfb-911b-32779ce01ec5)https://static.igem.org/peertube/streaming-playlists/hls/96229901-db49-496c-8989-3832c3d1acd1/94d6dc36-3bae-4f73-b7a7-ad742aa4eead-master.m3u8https://video.igem.org/videos/embed/jxhinzwyVYkBvwXLRNJszx10010622020-10-30T22:25:21.053ZChinaAsiaManufacturingYES2020 Team PresentationsNOhttps://video.igem.org/w/aG7afnJcMsySMJTuhULX78https://video.igem.org/lazy-static/thumbnails/3cafa3eb-7272-4fe8-be22-7ac7fbdda4cd.jpgSJTU-software: RISS (2020) - Team Presentation [English]**Title:** RICAID **Abstract:** China has a miserable memory of suffering poverty and starving. On the other hand, China has been making rapid progress in tackling hunger. Thirty years ago, one in three Chinese people was hungry. Today, less than one in 10 is hungry. No other country has helped so many people out of hunger in such a short period as China. Encouraged by the scientists and their contributions in China, our project will provide a lot of new knowledge of rice genetics and provide a solid theoretical foundation for rice breeding. Our project will be designed to help experimental research of stress-tolerance related to one of Oryza sativa L., commonly named rice. We will set up a database including gene, RNA-seq, protein information, etc. of Oryza sativa and also help to evaluate and tag the undiscovered genes so that we can recommend genes most possibly related to stress-tolerance to researchers. [Wiki](https://2020.igem.org/Team:SJTU-software) | [Project Promotion](https://video.igem.org/videos/watch/912f0b77-0939-4f5e-be29-c7846b373fb2)https://static.igem.org/peertube/streaming-playlists/hls/4e7bcb6d-1244-406a-a7d6-c53b9818debf/ddd0321a-2645-45be-9008-2044f6781fe4-master.m3u8https://video.igem.org/videos/embed/aG7afnJcMsySMJTuhULX7811910312020-10-30T22:40:33.527ZChinaAsiaSoftwareYES2020 Team PresentationsNOhttps://video.igem.org/w/ttZRqpm8Uq9kb8vAhjBcA4https://video.igem.org/lazy-static/thumbnails/12d5f39d-3e05-4e59-a983-b50da09924f0.jpgFSU: SPLASH (2020) - Team Presentation [English]**Title:** SPLASH: Sewage Purification Limiting Antibiotic Spread in Habitats **Abstract:** Antibiotic resistance is an increasing global emergency. Microorganisms continue to evolve ways to render antibiotic therapies less effective causing 2.8 million infections in the US and 750,000 deaths worldwide each year. In Florida, dolphins are serving as a sentinel species. A longitudinal study on dolphins in the Indian River Lagoon found that 88.2% of bacterial isolates were resistant to at least one antibiotic. Resistance to erythromycin was highest among all the bacteria at 91.6%. Antibiotics are entering our environment via animal husbandry and disposal of antibiotics. We've designed an engineered E. coli that expresses EreA and EreB enzymes, which will degrade erythromycin in the secondary portion of wastewater treatment plants and a genetic system that is intended to prevent the engineered cells from escaping. Our project can be implemented in water treatment plants across the world to curb the rapid spread of antibiotic resistance. [Wiki](https://2020.igem.org/Team:FSU) | [Project Promotion](https://video.igem.org/videos/watch/f1967d07-1011-4548-ab2e-9c4240e45375)https://static.igem.org/peertube/streaming-playlists/hls/de8f7a6c-bdb7-4f6c-9c82-4dbf1e410cdb/a5a99498-5a5c-4237-8c71-1d241144b718-master.m3u8https://video.igem.org/videos/embed/ttZRqpm8Uq9kb8vAhjBcA412000612020-10-31T02:55:44.478ZNorthAmericaUnitedStatesEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/3HjbjNevnmqFwj7JbEzn9nhttps://video.igem.org/lazy-static/thumbnails/06c59cd8-d9c0-4dcb-9c2a-d893d55a1812.jpgBJ101HS: Mother Yeast (2020) - Team Presentation [English]**Title:** Mother Yeast **Abstract:** The inspiration for our project came from knowing nursing mothers faced lots of breastfeeding problems, including insufficiency of milk production and inconveniences of suckling. Realizing that there were significant differences between formula milk and breast milk, we came up with creating a breast milk substitute that better fits human nutritional needs. We learned that present formula milk lacks of important proteins like Œ≤ casein, Œ∫ casein, lactoferrin, and Œ±-lactalbumin. Thus, we paid our attention to these proteins and hoped we could produce them using synthetic biology methods. We chose yeasts as our engineering bacteria because they are welcoming for human bodies. We transfected CSN2, CSN3, LTF, and LALBA that are responsible for making the proteins that mentioned above into yeasts, and cultivated them. Finally, we got our targeted proteins and created a product. We hope following iGEMers can produce more materials like amylose to fix the disadvantages of formula milk. [Wiki](https://2020.igem.org/Team:BJ101HS) | [Project Promotion](https://video.igem.org/videos/watch/7c30f8a1-53dd-4632-80ed-c93ba27b319e)https://static.igem.org/peertube/streaming-playlists/hls/15f6f977-9dac-4bb1-b63a-a2548941dd21/14bb8258-22c6-4e13-bdb2-2e217943860c-master.m3u8https://video.igem.org/videos/embed/3HjbjNevnmqFwj7JbEzn9n10680322020-10-31T03:11:00.769ZAsiaChinaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/hqcmjht4jvcZTKTNDssFA8https://video.igem.org/lazy-static/thumbnails/67e8c7f7-1dd8-4a4d-a6d9-7a6be4283f65.jpgWilliam_and_Mary: TheraPUFA (2020) - Team Presentation [English]**Title:** TheraPUFA **Abstract:** The COVID-19 pandemic has emphasized the urgent need for broad-spectrum antiviral therapies. To address this need, we have 1) designed an antiviral nasal probiotic and 2) investigated its feasibility through extensive mathematical modeling. The designed probiotic secretes polyunsaturated fatty acids (PUFAs), which may lyse viral envelopes and suppress replication by positive strand RNA viruses, in addition to regulating inflammation. Our 'smart' probiotic is designed to sense excessive inflammation by detecting high levels of TNF-alpha and IFN-gamma, and to respond by switching PUFA production from arachidonic acid to anti-inflammatory docosahexaenoic acid. To determine our probiotic's feasibility, our mathematical model quantifies the amount of PUFA produced by the probiotic, and how secreted PUFA affects viral load and cytokine production. This complex model extends beyond current probiotic models by accounting for spatial heterogeneity and transcriptional stochasticity. With our novel design and rigorous modeling, TheraPUFA provides a framework for implementing smart, living antiviral therapies. [Wiki](https://2020.igem.org/Team:William_and_Mary) | [Project Promotion](https://video.igem.org/videos/watch/0919fa03-4632-4451-b2e6-0e715540e37f)https://static.igem.org/peertube/streaming-playlists/hls/84f3105a-f308-4ecb-aa6d-8a7164388007/60074640-fb8c-46f5-aa45-a474e26c2c07-master.m3u8https://video.igem.org/videos/embed/hqcmjht4jvcZTKTNDssFA811610522020-10-31T03:21:57.005ZUnitedStatesNorthAmericaTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/ozQin9qyGgRdXJ5PwHiJjPhttps://video.igem.org/lazy-static/thumbnails/2b0e7b27-d234-4b34-800e-e07be30445e6.jpgTuebingen: PacMn (2020) - Team Presentation [English]**Title:** PacMn - Phytochelatin assisted complementation for Manganese **Abstract:** Environmental heavy metal pollution has raised concerns for water quality and human health. In fact, it was found that due to climate change, and thus, rising groundwater temperatures in Germany, manganese (Mn2+) concentrations in local water resources increase. Accordingly, we propose an approach for the measurement and retention of Mn2+-ions in which we use genetically engineered E. coli as a bifunctional biosensor. Our system contains a riboswitch, which triggers a fluorescent signal in the presence of Mn2+-Ions, in combination with induced complexion for clearance of Mn2+-Ions with phytochelatin proteins. Due to its sequence complexity, we modified the phytochelatin sequence in silico, and modeled the variants' structures to subsequently evaluate their stability using Molecular Dynamics simulation. Upon successful cloning, the functionality and detection range of our system is assessed using titrated Mn2+, prior to investigating the signal kinetics and effects of cell density, as well as heavy metal retention in vivo. [Wiki](https://2020.igem.org/Team:Tuebingen) | [Project Promotion](https://video.igem.org/videos/watch/47d34e33-678c-4d01-b48d-a2761aa46a66)https://static.igem.org/peertube/streaming-playlists/hls/b6e25c48-ce63-470b-aa42-5355796060e3/72dd1d02-4dd9-4535-87c3-c45002b877b0-master.m3u8https://video.igem.org/videos/embed/ozQin9qyGgRdXJ5PwHiJjP117201042020-10-31T03:33:03.102ZEuropeEnvironmentGermanyYES2020 Team PresentationsNOhttps://video.igem.org/w/bvSZ6AYFHS9QAbmT7cn3SQhttps://video.igem.org/lazy-static/thumbnails/3876ba4b-0c40-480e-a21b-a3eeb6c7d857.jpgSt_Andrews: Shinescreen (2020) - Team Presentation [English]**Title:** The in-silico design of an environmentally friendly probiotic sunscreen **Abstract:** The St Andrews iGEM team have used synthetic biology to create a novel skin probiotic which protects against UV radiation. Current sunscreens contain multiple inorganic nanoparticles and UV-absorbing compounds known to enhance the bleaching response of corals, making them more vulnerable to other environmental stressors. Using Nissle E. coli as a chassis, we sought to design a living sunscreen expressing a potent photoprotective compound, shinorine. Our human practices reinforced our belief that the biosafety is integral to the success of our probiotic. We have developed a novel killswitch that uses environmental stimuli to prevent long-term colonisation of both the skin and the environment. We conducted an international survey on attitudes towards sunscreen and genetic engineering, allowing us to better appreciate public consensus on these topics. In-silico modelling served a vital role; we modelled the dynamics of our gene circuit and used these results to predict its evolutionary stability. [Wiki](https://2020.igem.org/Team:St_Andrews) | [Project Promotion](https://video.igem.org/videos/watch/afca7a02-65e3-4eb3-9f4a-6c4248747aea)https://static.igem.org/peertube/streaming-playlists/hls/5527604e-7def-40f0-b011-81d5fbc64b44/d0e0de35-def5-4c5b-88fa-40d175c91c62-master.m3u8https://video.igem.org/videos/embed/bvSZ6AYFHS9QAbmT7cn3SQ11910442020-10-31T03:50:55.389ZEuropeEnvironmentUnitedKingdomYES2020 Team PresentationsNOhttps://video.igem.org/w/viVpDn7tuBLLKvFSK65h7Mhttps://video.igem.org/lazy-static/thumbnails/7c449483-097c-48f5-8af6-88963ce23446.jpgAachen: M.A.R.S. - Magnetic ATP-Recycling System (2020) - Team Presentation [English]**Title:** M.A.R.S. - Magnetic ATP Recycling System **Abstract:** The complex regeneration of biochemical energy sources represents a cost-intensive hurdle for many production and research processes. With M.A.R.S., we want to establish an innovative strategy to create light-powered, mitochondrion-like protocells and a bioreactor that will recycle those cells by magnetism. Through the design of our reusable recycling system it will be able to power every ATP-driven enzyme cascade, making M.A.R.S. universally applicable. By extracting bacteriorhodopsin out of Halobacterium salinarum, a phototrophic archaea species, and combining it with an ATP synthase from Saccharomyces cerevisiae in self-produced polymersomes and liposomes, we get simple but effective chassis, which make it possible to cover the energy requirement of any enzyme reaction cascade. Binding those chassis to magnet particles via anchor peptides enables the reuse of the entire protocell system within the reactor by means of magnetic purification, whereby they can be fed directly into enzyme cascades, without depending on living cells. [Wiki](https://2020.igem.org/Team:Aachen) | [Project Promotion](https://video.igem.org/videos/watch/bff60010-a0a8-4d37-92ec-da263d7cc9af)https://static.igem.org/peertube/streaming-playlists/hls/ed599430-bf4e-4a96-a29c-debb62facc99/47db5cce-ec3c-4526-83e1-374f5866db6a-master.m3u8https://video.igem.org/videos/embed/viVpDn7tuBLLKvFSK65h7M812018582020-10-31T04:01:06.042ZFoundationalAdvanceEuropeGermanyYES2020 Team PresentationsNOhttps://video.igem.org/w/hWW9q68TR8qhLYa8ET7MYihttps://video.igem.org/lazy-static/thumbnails/ab675b97-08f2-48e0-b258-4ebde2b8aaca.jpgShanghaiTech_China: CESAR (2020) - Team Presentation [English]**Title:** CESAR (Cas12a-based Efficient Solution to Antibiotic Resistance) **Abstract:** This year, ShanghaiTech_China developed an enhanced method of detecting antibiotics and antibiotic-resistance genes (ARGs), first applying Cas12a to this field. Antibiotic-resistance has become a global health concern. The antibiotic-abuse in clinical therapies and industries has led to antibiotics' leakage and unexpected rapid spreading of ARGs, causing the emergence of drug-resistant microbes. In order to solve this problem, ShanghaiTech_China designed a new detection system -- CESAR (Cas12a-based Efficient Solution to Antibiotic-Resistance), to identify antibiotic-residue and ARGs. CESAR contains two devices with different purposes: (1) CESAR-I is a portable rapid-response device for on-site antibiotic-residue detection. By integrating the aptamer-sensing module, Cas12a-reporting module, and fluorescence-measuring module, it simplifies the process and lowers the cost of antibiotic-abuse surveillance. (2) CESAR-II is designed for doctors' detecting ARGs. Current techniques are either time-consuming or too expensive for hospitals in less-developed regions. CESAR-II is cost-effective and can help eliminate the medical disparity caused by unbalanced economic development. [Wiki](https://2020.igem.org/Team:ShanghaiTech_China) | [Project Promotion](https://video.igem.org/videos/watch/4835f355-ddc7-488d-bcff-ed814544d107)https://static.igem.org/peertube/streaming-playlists/hls/893dc00f-9c07-4c78-9c6a-a23d808a3335/261c1357-9642-4bda-8fa5-0937cb953190-master.m3u8https://video.igem.org/videos/embed/hWW9q68TR8qhLYa8ET7MYi119901092020-10-31T04:13:59.645ZNewApplicationChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/ndtaDJJEYXVxapje5AvMGxhttps://video.igem.org/lazy-static/thumbnails/8bfdd30c-65c5-48cb-9306-9e9d7e33788e.jpgHeidelberg: The Legend of Cellda - a link between proteins (2020) - Team Presentation [English]**Title:** The Legend of Cellda ¬ñ A Link Between Proteins **Abstract:** DNA, RNA and proteins are the fundamental building blocks of synthetic biology and life itself. Of them all, fusion proteins, which are often too large and inflexible, take the spotlight, allowing for a modular approach to protein engineering. To mediate interactions between all three core components of life more flexible we aim to harness the power and flexibility of RNAs We apply machine learning to design flexible RNA modules and binding proteins for assembling complexes of protein domains, RNA and DNA in a sequence-specific manner. In addition, we engineer trans-splicing ribozymes to reconfigure our RNAs and proteins at the transcript level. Also, we apply molecular modelling to provide tools to design specific RNA-binding proteins. Taken together, we provide a controllable, compact, and dynamical alternative to fusion proteins with applications to drug delivery and expand the toolbox of synthetic biology. [Wiki](https://2020.igem.org/Team:Heidelberg) | [Project Promotion](https://video.igem.org/videos/watch/105313e6-0691-4504-95d9-83f54fdf007f)https://static.igem.org/peertube/streaming-playlists/hls/abcd9438-346d-4197-b6e6-2b5148f744eb/7171ffe9-9664-4147-8e42-87768798d4a1-master.m3u8https://video.igem.org/videos/embed/ndtaDJJEYXVxapje5AvMGx119601552020-10-31T04:35:21.315ZGermanyFoundationalAdvanceEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/vMgCyUB7L1vj5ygMkunTDxhttps://video.igem.org/lazy-static/thumbnails/472b18ec-29fc-4bf9-8426-15c0445a24da.jpgCPU_CHINA: Lico.Health (2020) - Team Presentation [English]**Title:** Prevention methods of alcoholic liver disease by inflammation control and intestinal flora regulation **Abstract:** We engineered a synthetic organism capable of expressing and secreting anti-inflammatory cytokines IL-22, which will get to liver first due to First Pass Effect after its absorption into bloodstream and perform anti-inflammation function to protect the injured liver part from further inflammation damage. We also endowed the chasis with anti-E.faecalis function controlled by quorum sensing system. We chose bacteriocins JM79, plwŒ± and plwŒ≤ with high specificity towards E.faecalis, the bacteriocins will function in situ to kill the over-reproduced E.faecalis to balance the intestinal flora, thus protect the liver from further immunoreaction at immunogen level. The chasis applied is E.coli Nissle 1917, which is a type of probiotic that can be taken orally in capsule. The system is expected to protect the liver with alcohol-induced inflammation from further pathological progression and is possible to be used as an adjuvant therapy in the future. [Wiki](https://2020.igem.org/Team:CPU_CHINA) | [Project Promotion](https://video.igem.org/videos/watch/e087d35b-b444-4df2-993a-88cdbcbd647a)https://static.igem.org/peertube/streaming-playlists/hls/f12b1f97-cec9-455c-b5d3-6b957eff6355/d8f7771e-9c5d-49f0-931d-919bac7fa7e1-master.m3u8https://video.igem.org/videos/embed/vMgCyUB7L1vj5ygMkunTDx10140592020-10-31T04:52:59.229ZChinaTherapeuticsAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/ekeCAeH75Eq42hyKf3W71vhttps://video.igem.org/lazy-static/thumbnails/4ea1e417-e824-4859-8f28-91aabd32402b.jpgHK_HCY: Reducing biofilm formation in Lactobacillus fermentum: Targeting interve... (2020) - Team...**Title:** Reducing biofilm formation in Lactobacillus fermentum: Targeting intervention on the AI-2/LuxS quorum sensing system **Abstract:** Lactobacillus sp. are the most abundant bacterial contaminants in biofuel. Among them, L. fermentum is the most common one, accounting for 50% relative abundances of microbial species in bioethanol production. In our proposed study, L. fermentum 2-1, with a special quorum sensing (QS)-related feature given its higher level of production of autoinducer-2 (AI-2), would be examined for the effects of a dual-pronged intervention of the AI-2/LuxS QS system on biofilm formation. One of the quorum quenching approaches would be to inhibit the activity of LuxS (AI-2 synthase) using a putative high-affinity peptide ligand that has been shown to specifically inhibit LuxS in Streptococcus suis. The second approach would be to degrade AI-2 molecules extracellularly using the kinase LarK. We hope to achieve an effective inhibition in the formation of biofilm in biofuel through our dual-pronged intervention. [Wiki](https://2020.igem.org/Team:HK_HCY) | [Project Promotion](https://video.igem.org/videos/watch/10ef253a-2112-4414-9575-b515fec81cb3)https://static.igem.org/peertube/streaming-playlists/hls/6bf655a3-c345-434e-99db-6f75cf5a2f05/d5831974-ed9c-4338-8b3c-777aec0cb601-master.m3u8https://video.igem.org/videos/embed/ekeCAeH75Eq42hyKf3W71v12000462020-10-31T05:59:14.317ZHighSchoolAsiaHongKongYES2020 Team PresentationsNOhttps://video.igem.org/w/hhVoRXakMJBstHN1aHoP5Whttps://video.igem.org/lazy-static/thumbnails/57b06c2e-dc1e-4e18-9cb8-795e42e51b71.jpgNYC_Earthians: Creating A Chimeric APOL3 protein using CRISPR (2020) - Team Presentation [English]**Title:** Creating A Chimeric APOL3 protein using CRISPR to cure trypanosomiasis in African Cattle **Abstract:** African trypanosomiasis, caused by the parasitic kinetoplastid Trypanosoma brucei brucei (T.b.brucei), significantly threatens the African cattle population. The Trypanosome Lytic Factor Apolipoprotein L-1 (APOL1) is a pore-forming protein known to kill all types of trypanosomes in baboons. While cattle lack APOL1, from the genome-wide BLAST we found cattle APOL3 (c-APOL3) which is the closest homolog of baboon APOL1 (b-APOL1). Sequence alignment analysis showed that c-APOL3 lacked 38 residues in N-terminus and had differences in C-terminus domain. Further, structure prediction analysis via HHPred and RaptorX indicated that the N-terminus might interact with the C-terminus to maximize pore-forming potential in the b-APOL1, though c-APOL3 lacked these interactions. Therefore, chimeric proteins with a combination of N and C-termini from b-APOL1 in native c-APOL3 were designed and investigated for function using bioinformatics. The capability of CRISPR for insertion of chimeric genes into the host genome and physiological functional assays are being performed. [Wiki](https://2020.igem.org/Team:NYC Earthians) | [Project Promotion](https://video.igem.org/videos/watch/2ad37ede-9e7f-441e-9192-bd5fe539b649)https://static.igem.org/peertube/streaming-playlists/hls/83ef0631-f00b-4146-939f-a3800004ee5a/40d517d9-c35a-4c9b-8c51-cee2efa806f1-master.m3u8https://video.igem.org/videos/embed/hhVoRXakMJBstHN1aHoP5W11860222020-10-31T06:11:10.440ZHighSchoolNorthAmericaUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/nKAcTryYcoRSPLR3ehQieNhttps://video.igem.org/lazy-static/thumbnails/42d26353-b07c-4615-b864-413712402654.jpgXJTU-China: Sand Fixers Alliance (2020) - Team Presentation [English]**Title:** Sand Fixers Alliance **Abstract:** Upon the excessive deforestation, grazing and reclamation of human beings, desertification has been intensified. A natural sand-fixing system, biological soil crusts, was discovered to fight for desertification. But this natural sand fixation strategy always has little effect when facing the aggressive sand. Thus in our project, an engineered Bacillus subtilis was constructed to effectively produce extracellular polysaccharide, the key component of soil crust via introducing different combinations of key enzymes GalU and PGM. An arabinose-regulated suicide switch was also build to initiate suicide once the engineered bacteria release from the desert environment for biosafety. Furthermore, a symbiotic system of engineered Bacillus subtilis and cyanobacteria was developed to form sand fixers alliance, fighting for desertification. Our project is committed to educating the public about the current situation, hazards and solutions of desertification, and to providing a more convenient and effective strategy for desertification control. [Wiki](https://2020.igem.org/Team:XJTU-China) | [Project Promotion](https://video.igem.org/videos/watch/c9107ca8-80ff-4b64-8bac-5c053c811102)https://static.igem.org/peertube/streaming-playlists/hls/b025f938-6bc0-47f9-b1be-c16a4df24524/9224570c-438d-4ef5-a666-531f22015cd7-master.m3u8https://video.igem.org/videos/embed/nKAcTryYcoRSPLR3ehQieN11990472020-10-31T06:21:05.895ZEnvironmentAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/orZguLkgTk8pQvYa7VZyCyhttps://video.igem.org/lazy-static/thumbnails/63d02deb-91c9-4016-b449-610c4956f0c7.jpgZJU-China: MagHER2some (2020) - Team Presentation [English]**Title:** MagHER2some **Abstract:** Breast cancer is the main malignant tumor that threatens women's health. In an effort to overcome the unspecificity and side effect of the current contrast agent used for MRI, we reconstructure the magnetosomes from magnetotactic bacteria Magnetospirillum gryphiswaldense to produce a contrast agent with high biocompatibility that specifically targets HER2 positive breast cancer cells. With biological modifications, magnetosomes can link with anti-HER2 antibodies. By antigen-antibody interaction, engineering magnetosomes can conjugated with HER2 positive breast cancer cells, demonstrating a special pattern on the image under magnetic field. Armed with our engineered contrast agent MagHER2some, the efficiency of evaluating the response of the treatment of HER2-postive breast cancer treatment can be optimized, thus assisting the progress of therapy process. Further application can be made through establishment of a platform with biomarkers targeting various diseases as inputs, paving avenue for precise evaluation of other diseases. [Wiki](https://2020.igem.org/Team:ZJU-China) | [Project Promotion](https://video.igem.org/videos/watch/78434aa2-5d28-4da0-ade7-897b735342c1)https://static.igem.org/peertube/streaming-playlists/hls/b5c9efd9-dc61-45f8-9bdd-881d50865b00/b7b460e7-929d-4d0b-a864-8abc6b46849f-master.m3u8https://video.igem.org/videos/embed/orZguLkgTk8pQvYa7VZyCy11980582020-10-31T06:47:38.754ZDiagnosticsChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/iAugcu6N29NdnY7uEzkw2chttps://video.igem.org/lazy-static/thumbnails/692266e3-61bf-4a9b-894b-1965a0040302.jpgBUCT: Legolas•Microcystin (2020) - Team Presentation [English]**Title:** Legolas*Microcystin: An innovation treatment of algal blooms and microcystin **Abstract:** Every summer, many lakes around the world are covered with some disgusting, green microbes. They are cyanobacteria, which produce cyanobacteria toxins, such as microcystins. It can cause brain fever, skin allergies; even induce tumor genesis and liver cancer. In our project, we use a special chassis -cyanophage. We try to add two parts to the phage: a functional part that can be used to degrade the toxin and a control part that prevents the release of the cyanophage. Our functional part consists of MLR gene cluster, which produces microcystin-LR degrading enzymes to decompose the long-lasting cyclic peptide into harmless amino acids. Our control part consists of Unnatural amino acid systems. It can be used to limit the proliferation of the cyanophage. By putting our designed recombinant cyanobacteria into water bodies, we hope this will be a more safe and effective treatment in algal blooms and toxins degradation. [Wiki](https://2020.igem.org/Team:BUCT) | [Project Promotion](https://video.igem.org/videos/watch/46918a08-9f87-417c-a1cd-968b98104f5d)https://static.igem.org/peertube/streaming-playlists/hls/8e7c0fff-d5e1-4831-b15b-b9e9958cc845/3ae66122-d225-4740-a34c-79258859c732-master.m3u8https://video.igem.org/videos/embed/iAugcu6N29NdnY7uEzkw2c11960432020-10-31T07:03:37.722ZChinaAsiaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/rki8fi5GMuw5JVj2ha6o4Zhttps://video.igem.org/lazy-static/thumbnails/ba883cb9-6157-4ad4-8cce-163c93f158d4.jpgUCL: Integrating enzymatic PET degradation into Microbial Desalination Cell tech... (2020) - Team...**Title:** PETZAP: Integrating enzymatic PET degradation into Microbial Desalination Cell technology **Abstract:** The world's oceans are suffocating from an annual addition of 8 million tons of plastic which threaten marine ecosystems and exacerbate water scarcity affecting over 2 billion lives. Our project aims to tackle these two global challenges by integrating enzymatic polyethylene terephthalate (PET) degradation into a Microbial Desalination Cell (MDC). The system involves a 2-step process co-culturing engineered E. coli to express a PETase-MHETase fusion degrading PET and P. putida to achieve further degradation and produce lactate, which then supports the biofilm growth of exoelectrogen, S. oneidensis, generating bioelectricity for desalination. Desalination efficiency was maximised by optimising lactate secretion, co-culture design, and MDC configuration based on the results from flux balance analysis (FBA) and agent-based model, simulating bacterial plastic degradation and bioelectricity production, respectively. Insights for further technical optimisation and feasible implementation at large scales were obtained through iterative engagement with experts and stakeholders. [Wiki](https://2020.igem.org/Team:UCL) | [Project Promotion](https://video.igem.org/videos/watch/8d7f918e-9e84-4c5b-be6f-24fccad9b947)https://static.igem.org/peertube/streaming-playlists/hls/cd2626d8-fa27-49c9-bc10-28df2e201097/0833ff3b-db7b-4b4c-bf73-81ae84a3703f-master.m3u8https://video.igem.org/videos/embed/rki8fi5GMuw5JVj2ha6o4Z10480752020-10-31T07:16:05.991ZEuropeUnitedKingdomEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/9aJBmUrwRuToe8jwUow2Rshttps://video.igem.org/lazy-static/thumbnails/078092cd-4cfa-4fb4-9516-bcb051ad7508.jpgCAU_China: Abaddon Remedy (2020) - Team Presentation [English]**Title:** Abaddon Remedy **Abstract:** In Revelation, Abaddon is the king of locusts who brought disasters to the world. In fact, locust swarms have caused chaos throughout history. To solve the problem of food insecurity caused by locust, CAU_China did project: ABADDON REMEDY. We are interested in finding a efficient biopesticide which can kill locust based on RNAi. We hope that ABADDON REMEDY will bring us a world with less locusts, and also less pesticide contamination. [Wiki](https://2020.igem.org/Team:CAU_China) | [Project Promotion](https://video.igem.org/videos/watch/eb51ba4a-14aa-4f8c-8952-95500d8d3eb9)https://static.igem.org/peertube/streaming-playlists/hls/42250ff5-fec6-4b10-b291-47e30dd0ae68/75ce5b7d-243e-4669-a15f-71edf2c58f04-master.m3u8https://video.igem.org/videos/embed/9aJBmUrwRuToe8jwUow2Rs11670472020-10-31T07:23:57.380ZAsiaEnvironmentChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/r6bhcwkiG1toVSni5vvKYPhttps://video.igem.org/lazy-static/thumbnails/50962e55-5edc-4e9d-98a9-e25df0580897.jpgFudan: Bone appetite (2020) - Team Presentation [English]**Title:** Bone appetite: make calcium supplements sustainable **Abstract:** In Asia, many old people suffer from insufficient calcium intake and related diseases such as osteoporosis. Considering that traditional calcium supplementation is not efficient and user-friendly enough, we intended to develop a kind of engineered bacteria based on E. coli that can colonize in the human intestine and secrete peptides to promote calcium absorption. We introduced the quorum sensing system to colonize bacteria in the intestine. Once the bacteria have successfully colonized the intestinal tract, the luxpR promoter will be activated and a series of short peptides that can bind to calcium and promote calcium absorption of intestinal epithelial cells will be expressed. A kill switch is added accordingly for safety. Our project provides a novel delivery method to provide calcium supplements sustainably. And we are actively seeking commercialization possibilities to expand our project impact, to reach more population, for the elderly's good health and well-being. [Wiki](https://2020.igem.org/Team:Fudan) | [Project Promotion](https://video.igem.org/videos/watch/7a0fee51-a637-4caf-aa97-a1d9bcafd3ba)https://static.igem.org/peertube/streaming-playlists/hls/cb2d852a-e3de-48da-9648-2f1bbc545483/faada4f5-350f-4696-bb3b-5901fb1f29bc-master.m3u8https://video.igem.org/videos/embed/r6bhcwkiG1toVSni5vvKYP11950662020-10-31T07:49:29.218ZFood&NutritionChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/r1B1csmPJpvfb24cRJYdJ3https://video.igem.org/lazy-static/thumbnails/fb238a85-700e-485c-8f73-69f56e700f93.jpgVirginia: Manifold (2020) - Team Presentation [English]**Title:** Manifold: Protein Shells with Encapsulated DNA Scaffolds for Increasing Efficiency of Biosynthetic Pathways **Abstract:** The lack of a versatile and reliable way to improve metabolic flux channeling, pathway orthogonality, and product yields is a major impediment to the expanded utilization of biosynthesis for the production of drugs and industrially valuable chemicals. Manifold, a platform technology that addresses this problem, consists of bacterial microcompartments (BMCs) with encapsulated dsDNA scaffolds that sequester and spatially organize, at fixed concentrations, biosynthetic enzymes presented as zinc-finger fusion proteins. Here we deliver the designs for an E. coli cell capable of synthesizing resveratrol using the Manifold platform. The Manifold platform will help lower costs and expand the applications of chemical biosynthesis. [Wiki](https://2020.igem.org/Team:Virginia) | [Project Promotion](https://video.igem.org/videos/watch/60f26449-d32b-4fb3-abe3-709d888615f1)https://static.igem.org/peertube/streaming-playlists/hls/ca8a09c1-df99-45ad-a2cb-5148915b0176/8379602f-f744-4a7b-b339-f2af11c96caa-master.m3u8https://video.igem.org/videos/embed/r1B1csmPJpvfb24cRJYdJ311080412020-10-31T08:01:33.002ZNorthAmericaUnitedStatesManufacturingYES2020 Team PresentationsNOhttps://video.igem.org/w/v3PZUzUpW3Vv2meaedMGSEhttps://video.igem.org/lazy-static/thumbnails/9bc80920-1538-4cd4-9579-ed9d46a01df3.jpgUCopenhagen: CIDosis (2020) - Team Presentation [English]**Title:** CIDosis - Just Sweat It! Developing a Biosensor for Monitoring Chronic Inflammatory Diseases **Abstract:** Chronic Inflammatory Diseases (CIDs) are debilitating diseases affecting three out of five people worldwide. Optimal treatment requires constant monitoring, but current testing methods are invasive, time-consuming, and costly. CIDosis strives to change this with a non-invasive patch for self-monitoring. Backed by extensive computer modeling, we are developing a biosensor that continuously collects sweat from the skin, and produces a color reflecting the level of inflammation. The biosensor in our patch is based on Saccharomyces cerevisiae cells equipped with interleukin-specific receptors that will associate in the presence of interleukins, resulting in the intracellular complementation of a split protein. A transduction pathway is then triggered, leading to the production of a color, whose intensity is logged by an app and shared with a medical professional. By integrating the wishes of patients living with CIDs, as well as experts within these fields, CIDosis brings a next generation tool for patient empowerment. [Wiki](https://2020.igem.org/Team:UCopenhagen) | [Project Promotion](https://video.igem.org/videos/watch/3b21e193-aefc-4d45-a65d-6fa4f7a3b93a)https://static.igem.org/peertube/streaming-playlists/hls/eb3e16b7-932d-4fdc-9283-42157a9072c2/3a20089e-d013-49c6-a39c-1966793abeb3-master.m3u8https://video.igem.org/videos/embed/v3PZUzUpW3Vv2meaedMGSE102602512020-10-31T08:10:40.217ZDenmarkEuropeDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/vtiRYQ3F4ye6eWSpghaSpshttps://video.igem.org/lazy-static/thumbnails/7571b197-1781-4e3c-bd8d-cdc6a90fc829.jpgSHSID: Efficient detection of Listeria monocytogenes by means of a Cas12a-crRNA ... (2020) - Team...**Title:** Efficient Detection of Listeria monocytogenes by a Cas12a-crRNA complex and ssDNA **Abstract:** Food is usually stored in the fridge to keep it as fresh as possible and far from the contamination of bacteria. However, a species of poorly known bacteria, Listeria monocytogenes, is able to endure cold conditions, and causes serious health risks such as fever, diarrhea, miscarriage, and even death. Unfortunately, as we learned from browsing related articles, field research, and surveys, modern detection methods are all very costly and time-consuming. So, we aim to create a biological kit, made out of crRNA, Cas12a, ssDNA, that allows for efficient detection of L. monocytogenes. crRNA and Cas12a will form a complex, and when crRNA binds to the oligo sequences that model the DNA of L. monocytogenes, it will activate the Cas12a protein, thus causing Cas12a to cut the surrounding ssDNA which produces visible fluorescence. Ultimately, our kit is able to produce a fluorescence after 10 minutes of exposure to oligo sequences. [Wiki](https://2020.igem.org/Team:SHSID) | [Project Promotion](https://video.igem.org/videos/watch/591eeec9-c1d7-4824-b287-75dcb70c8d5b)https://static.igem.org/peertube/streaming-playlists/hls/eea91c50-af80-4514-a6fd-ec0d476217e0/73e04d5d-ae34-448f-970c-d32c480d1d21-master.m3u8https://video.igem.org/videos/embed/vtiRYQ3F4ye6eWSpghaSps11650742020-10-31T08:20:55.213ZAsiaChinaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/h4EXgqpodCPbVn8cnmZw2nhttps://video.igem.org/lazy-static/thumbnails/91cf003e-1037-41c1-90a8-0d713aebb714.jpgPittsburgh: Bluetooth Bacteria (2020) - Team Presentation [English]**Title:** Bluetooth Bacteria **Abstract:** Our ability to control the function of engineered microbes is limited within hard to reach places, such as deep within human tissue, the rhizosphere surrounding crops, or pipes in manufacturing facilities. The field of magnetogenetics has begun to consider how magnetic fields could affect biological molecules and cells. In our project, we aim to control the function of bacteria via the remote activation of an alternating magnetic field (AMF). E. coli will be engineered to respond to magnetic stimuli by attaching magnetic nanoparticles to the surface of the bacterial membrane in conjunction with cytoplasmic temperature-sensitive transcriptional repressors to regulate gene expression of the green fluorescent protein. Upon AMF stimulation, magnetic nanoparticles heat up and increase cytoplasmic temperature, thereby inducing a conformational change of the repressor dimers and allowing transcription of target genes. This technology critically couples alternating magnetic field stimulation with thermal sensitive parts to enable 'wireless' control of bacteria. [Wiki](https://2020.igem.org/Team:Pittsburgh) | [Project Promotion](https://video.igem.org/videos/watch/2b76a647-cfa6-49b8-9dc8-1fe3959c64b7)https://static.igem.org/peertube/streaming-playlists/hls/82157496-94b0-4148-a5d3-7ce963646e0f/b7f1b3df-fdab-4419-900d-21da51fc9f40-master.m3u8https://video.igem.org/videos/embed/h4EXgqpodCPbVn8cnmZw2n8100732020-10-31T08:30:37.725ZNorthAmericaFoundationalAdvanceUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/8Nubqukn7xD5aUKBjjcVd3https://video.igem.org/lazy-static/thumbnails/ec78fe14-056f-446d-96f7-e39856431a69.jpgMIT_MAHE: Breaking Bond (2020) - Team Presentation [English]**Title:** Breaking Bond **Abstract:** Pollution is a direct result of man's ever-increasing need for natural resources and energy, one of the notorious pollutants being ¬ñ mercury. Mercury in water bodies is converted by anaerobic microbes into methylmercury. This toxic compound, gets Biomagnified and Bioaccumulated through the aquatic trophic levels. At the level of humans, it can be dangerously high. It is no coincidence that this was responsible for one of the world's worst environmental disasters, i.e. the Minamata Disease. Previous projects attempted to solve the problem of methylmercury poisoning using bioremediation - converting free methylmercury (95% absorption) to elemental mercury (<0.01% absorption). However, these don't account for the methylmercury already inside millions of fish. We wish to develop a probiotic bacterium with similar capabilities, this exploits the fact that Hg is inert in the gut and prevents absorption of organic mercury. We will also have a system that will help in reducing mercury-induced inflammations. [Wiki](https://2020.igem.org/Team:MIT_MAHE) | [Project Promotion](https://video.igem.org/videos/watch/8fa79012-4879-4e43-aa37-2c80630c0fce)https://static.igem.org/peertube/streaming-playlists/hls/3f2d8ce6-8e30-43b6-b4ca-07cee6b10f86/a669ed8f-e301-4c98-9829-6cf90eb6f824-master.m3u8https://video.igem.org/videos/embed/8Nubqukn7xD5aUKBjjcVd311690542020-10-31T08:36:15.627ZIndiaTherapeuticsAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/idCaV9SQYaoHktwe36CyTuhttps://video.igem.org/lazy-static/thumbnails/91196272-dc7b-4c17-815b-6136b7341ea6.jpgUPCH_Peru: CrioPROT: An innovative solution for crop loss due to frost. (2020) - Team Presentatio...**Title:** CrioPROT: An innovative solution for crop loss due to frost **Abstract:** In the Peruvian highlands, frosts during the winter cause crop damage leading to significant economic losses for small and medium scale farmers, perpetuating their already vulnerable condition. Our team wants to approach this problem by bringing an innovative solution. We aim to develop a system of production of an antifreeze agent which has a protective capacity in frost-susceptible crops, administrable by spraying. This product consists of a solution of recombinantly expressed and purified antifreeze proteins (AFPs). Our core genetic designs comprise the sequences of three types of AFPs, of plant and insect origin, with inducible and constitutive promoters, and a peptide signal for secretion to the culture medium. The chassis we have selected is a psychrophilic bacteria of the Pseudoalteromonas genus in order to guarantee an efficient work at low-temperature settings. In this way, our system will be capable of producing AFPs in low-tech environments in frost-affected regions. [Wiki](https://2020.igem.org/Team:UPCH_Peru) | [Project Promotion](https://video.igem.org/videos/watch/f2959eb1-80e2-43e0-95e8-3c44cb308e9b)https://static.igem.org/peertube/streaming-playlists/hls/8b6e92d8-5cab-4dcd-b5d9-20fe1c4ae39a/e7fad00b-967d-4d67-8cd5-9b036d0d9eba-master.m3u8https://video.igem.org/videos/embed/idCaV9SQYaoHktwe36CyTu11140472020-10-31T08:50:32.649ZLatinAmericaPeruFood&NutritionYES2020 Team PresentationsNOhttps://video.igem.org/w/qsosp8mJdhKqngiZjAYHQehttps://video.igem.org/lazy-static/thumbnails/70443ac7-2af9-4e8e-8b64-fc696fc31abf.jpgOhioState: Biocontainment Reimagined (2020) - Team Presentation [English]**Title:** Biocontainment Reimagined **Abstract:** The field of synthetic biology has one major barrier to being accepted by the broader public: safety. While we may know that the organisms we use are harmless, most people don't have the background knowledge needed to come to the same conclusion. We believe that the best way to raise safety and confidence in synthetic biology products is by adding genetic biocontainment systems, which are genes and genome edits that give us control over the life of our microbes. These systems range from small genetic circuits of promoters and toxins to complete genomic rewrites, and we've compiled all of them into a simple, flexible database. To accompany this, we've developed predictive models and educational media, all with the express purpose of making biocontainment easier to implement and making synthetic biology safer for public use. [Wiki](https://2020.igem.org/Team:OhioState) | [Project Promotion](https://video.igem.org/videos/watch/f520dc8b-3228-4ff7-869c-f8a9a64984d1)https://static.igem.org/peertube/streaming-playlists/hls/c60a811c-4c02-4672-a7c2-bae54c01ff91/e0ba0765-fba2-4a2d-aea6-bd89fbf95ca6-master.m3u8https://video.igem.org/videos/embed/qsosp8mJdhKqngiZjAYHQe11950652020-10-31T09:01:26.997ZUnitedStatesFoundationalAdvanceNorthAmericaYES2020 Team PresentationsNOhttps://video.igem.org/w/8eZAEYi4UTg2JqxUmx6hEhhttps://video.igem.org/lazy-static/thumbnails/69d11c2e-6e2b-4dcb-b869-4dc0064a084c.jpgEstonia_TUIT: SPARKLE (2020) - Team Presentation [English]**Title:** SPARKLE: Solar potentiated Artificially Knitted Lipid Enclosures **Abstract:** Yeasts have the potential to be used as cell factories to produce lipids (biodiesel, high-value lipids, etc.). However, bio-production is costly compared to chemical synthesis, as it is highly energy-consuming for the cell and product extraction is laborious. To increase competitiveness, we engineer yeast to accumulate high lipid levels by using light both as an inductor for metabolic switch and as an electron source. Further, yeast is designed to self-lyse after production. First, we introduce extra copies of lipid synthesizing enzymes controlled by light-inducible promoters. Next, we coat the cells with light-absorbing nanoparticles to enable the cells to use light as an electron source for NADPH formation ¬ñ a critical cofactor for lipid synthesis. This leads to increased carbon flux to lipid production. To ease the product extraction, the cells are designed to autolyse by induction of cell wall degrading glucanases that are targeted to cell wall via anchor proteins. [Wiki](https://2020.igem.org/Team:Estonia_TUIT) | [Project Promotion](https://video.igem.org/videos/watch/ce1e729b-95ca-4a73-9bc8-d81ae41abde2)https://static.igem.org/peertube/streaming-playlists/hls/3aa422b2-1a2a-4fe9-89ae-ccd458fd55a4/2d40b936-38dc-471f-b276-aecc01934db1-master.m3u8https://video.igem.org/videos/embed/8eZAEYi4UTg2JqxUmx6hEh10000812020-10-31T09:15:26.960ZManufacturingEuropeEstoniaYES2020 Team PresentationsNOhttps://video.igem.org/w/az7xh28pWE7QpdLqj2kYs3https://video.igem.org/lazy-static/thumbnails/a6ea05ed-832d-4e50-8202-f1d7bcb97462.jpgECNUAS: establishing a selective platform for target GR antagonist using Dual-fl... (2020) - Team...**Title:** Development of an Experimental Platform for Screening GR antagonist against T2DM **Abstract:** T2DM is characterized by relative insulin deficiency caused by Œ≤-cell dysfunction and insulin resistance. Hepatic glucose metabolism is modulated by glucocorticoid, and the effect of glucocorticoid is usually mediated by glucocorticoid receptor (GR). Increasing of glucocorticoids has the side effect of aggravating blood glucose level, and the GR antagonists have been reported to improve blood glucose level. Therefore, it is important to establish a platform for screening GR antagonists. In our study, GR transactivation assay is established to verify the antagonistic effect of drugs on GR. Dexamethasone (Dex) as a GR agonist activates reporter gene expression efficiently, and mifepristone as a GR antagonist antagonizes Dex-induced reporter gene stimulation. Success of our experiments will boost research on GR-related medication. [Wiki](https://2020.igem.org/Team:ECNUAS) | [Project Promotion](https://video.igem.org/videos/watch/71c089e2-56e5-40dd-ae70-08383d9025b7)https://static.igem.org/peertube/streaming-playlists/hls/4d81d282-6daf-4db5-b655-f3855ad95f0e/2fee9ba7-5db3-4f02-872c-c5464e1d0df3-master.m3u8https://video.igem.org/videos/embed/az7xh28pWE7QpdLqj2kYs311430402020-10-31T09:31:01.547ZAsiaChinaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/axUjE1Lan4Bf7QLb4T3UUAhttps://video.igem.org/lazy-static/thumbnails/8cc64d78-98df-4211-a4f1-12416bd77099.jpgMoscow: HaploSense (2020) - Team Presentation [English]**Title:** HaploSense **Abstract:** As viruses mutate quickly, different genotypes among one species can develop. For some viral diseases, genotype detection is crucial for successful treatment, and hepatitis C is one of them. Nobel Prize 2020 was awarded for the fight against hepatitis –°, a major global health problem that causes cirrhosis and liver cancer. Hepatitis C is caused by hepatitis C virus (HCV) that has at least six different genotypes. Recombinant variant RF2k/1b is common in Russia, but it is often mistaken for genotype 1 that leads to incorrect treatment. However, a lot of infected people in Russia do not know their HCV genotype because of expensive testing or the impossibility to perform tests in peripheral regions. So, we are developing an easy-to-use portable Cas-based device 'HaploSense' to solve this problem. HaploSense can be optimized for genotypes detection of any RNA viruses, including HIV or Sars-CoV-2, and may become a universal detection platform. [Wiki](https://2020.igem.org/Team:Moscow) | [Project Promotion](https://video.igem.org/videos/watch/02607432-cf7e-47e9-807b-c051cbed6cd6)https://static.igem.org/peertube/streaming-playlists/hls/4d568c96-59d3-49de-a612-0ffb79839f1a/3c6112cb-78cd-45cd-b585-fee4b742843d-master.m3u8https://video.igem.org/videos/embed/axUjE1Lan4Bf7QLb4T3UUA6770752020-10-31T09:43:32.859ZEuropeDiagnosticsRussianFederationYES2020 Team PresentationsNOhttps://video.igem.org/w/nLQnavevLzCnLq3CRDqio9https://video.igem.org/lazy-static/thumbnails/9282523d-ab2e-4346-9bd3-663e0274a54b.jpgUM_Macau: BREAC (2020) - Team Presentation [English]**Title:** Biofilm-Removing E. coli for Aquarium Cleaning (BREAC) **Abstract:** As biofilm grows rapidly, it attaches to the inner surface of aquariums and aquatic organisms, which lowers the water quality if not cleaned regularly. However, the removal of biofilm in large aquariums is time-consuming and relies on inefficient labor through scrubbing. To address these concerns, we engineered the BL21 bacteria strain of E.coli to detect and biodegrade biofilms. The T7 promoter drives the expression of LuxR, which recognizes the signaling molecule AHL that is secreted by biofilms. Combined with AHL, LuxR would bind to the pLuxR to express the adhesive protein, Ag43, and digestive enzymes, DNase and protease. Our engineered bacteria will bind to the biofilm and degrade it efficiently. [Wiki](https://2020.igem.org/Team:UM_Macau) | [Project Promotion](https://video.igem.org/videos/watch/85340386-e80c-48b2-9020-8443ca740097)https://static.igem.org/peertube/streaming-playlists/hls/b0527194-04a3-4c46-b22a-68c2c818c918/f940ab1c-eecb-4690-a063-bcb4aff27cad-master.m3u8https://video.igem.org/videos/embed/nLQnavevLzCnLq3CRDqio911480402020-10-31T10:16:58.593ZAsiaEnvironmentMacaoYES2020 Team PresentationsNOhttps://video.igem.org/w/oS5YMEy4H8q2Yi2ofrUxeshttps://video.igem.org/lazy-static/thumbnails/c6798e38-7205-4fd8-9d10-042a7d9580f7.jpgUNILausanne: B.O.T: Bacterial Oscillation Therapy (2020) - Team Presentation [English]**Title:** B.O.T: Bacterial Oscillation Therapy **Abstract:** Colorectal cancer incidence has heavily increased over past decades, notably in more-developed regions. It is now the third-most common cancer worldwide. Recovery still relies heavily on standard chemotherapy, radiotherapy and surgery. A promising new approach in cancer treatment is chronotherapy. By administering drugs according the circadian rhythm, chronotherapy aims at maximizing efficacy and minimizing side effects. For our project, we introduced a synthetic circuit producing oscillations into E. coli Nissle 1917, a tumour-targeting probiotic strain of E. coli, to explore the potential benefits of chronotherapy. The final engineered strain delivers azurin, an anti-cancer peptide in an periodic manner. In the interest of biosafety, we also built a kill-switch to be incorporated into the final design. [Wiki](https://2020.igem.org/Team:UNILausanne) | [Project Promotion](https://video.igem.org/videos/watch/540954cd-003b-41d7-83b3-86ee15d9f9e5)https://static.igem.org/peertube/streaming-playlists/hls/b9274eb7-ee98-445c-a2d0-5ca91d53c8d8/988bdeb1-eb60-4441-8ca4-e31ac6306d55-master.m3u8https://video.igem.org/videos/embed/oS5YMEy4H8q2Yi2ofrUxes94101232020-10-31T10:30:03.296ZEuropeTherapeuticsSwitzerlandYES2020 Team PresentationsNOhttps://video.igem.org/w/7guVcx3mYze1YezC2kUZxfhttps://video.igem.org/lazy-static/thumbnails/b55c31c8-0242-40c2-8d41-7fcbd7f10aa9.jpgNCKU_Tainan: Eye kNOw: Envisioning the future of glaucoma treatment (2020) - Team Presentation [E...**Title:** Eye kNOw: Envisioning the future of glaucoma treatment **Abstract:** Glaucoma is characterized by progressive loss of visual field without any early symptoms. A leading cause of irreversible blindness, glaucoma affects millions of people worldwide and causes heavy burden on healthcare systems. The only proven effective treatment is reducing the patients' intraocular pressure (IOP), which is usually done by providing eyedrops with IOP-lowering effect, like nitric oxide. However, due to ineffective IOP management and warning strategies, blindness is still a problem. Therefore, iGEM NCKU-Tainan developed a revolutionary solution, Eye kNOw, a pair of contact lenses that contains engineered bacteria producing nitric oxide in response to IOP fluctuation. We also developed Eye Screen, an affordable and portable detection device that utilizes ultrasound to measure IOP and identify the high-risk groups. With Eye kNOw and Eye Screen, IOP can be controlled in a real-time manner, and glaucoma can be detected and monitored with a low-cost device, saving more people from life-long darkness. [Wiki](https://2020.igem.org/Team:NCKU_Tainan) | [Project Promotion](https://video.igem.org/videos/watch/eaef5b84-2f7e-4ab7-9ef4-f85422194bf1)https://static.igem.org/peertube/streaming-playlists/hls/32c0cf33-9bff-4052-a828-558959262288/d21136c0-498c-4dd8-8cf2-c16e0d3fc9d0-master.m3u8https://video.igem.org/videos/embed/7guVcx3mYze1YezC2kUZxf119901472020-10-31T10:38:49.060ZAsiaTaiwanTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/e4FDH3v5NnrTLgdvAWbJFNhttps://video.igem.org/lazy-static/thumbnails/54b8524b-ef08-455d-99ed-1ec0546ee545.jpgEPFL: EspressEAU: test your water (2020) - Team Presentation [English]**Title:** EspressEAU: test your water **Abstract:** Water is an essential resource that we regularly use for drinking, cooking and food processing. Hence, it is important to ensure that it is safe for consumption. EspressEAU serves as an analysis of general water quality. We aimed to create a safe, low-cost, and easy-to-use system that can enable on-site testing of water at home or in small communities. We hypothesized that genetically engineered yeast could be used as biosentinels by hijacking the yeast stress response pathway using either deletion strains or fluorescent reporter strains that are sensitive to water contaminants. These biosentinels are grown in a DIY system with temperature control, stirring, and two optical detectors for fluorescence and density, allowing us to monitor growth and fluorescence of the yeast, and thus detect the presence of contaminants in the water sample. We hope our project will facilitate frequent water testing of local water sources. [Wiki](https://2020.igem.org/Team:EPFL) | [Project Promotion](https://video.igem.org/videos/watch/db864d31-d101-41c2-a634-3393137863ff)https://static.igem.org/peertube/streaming-playlists/hls/69ca781a-5406-44be-b574-78487ae9755c/bffc1c8d-84f2-4303-891d-c093b62ddb42-master.m3u8https://video.igem.org/videos/embed/e4FDH3v5NnrTLgdvAWbJFN119502772020-10-31T10:53:36.417ZFood&NutritionEuropeSwitzerlandYES2020 Team PresentationsNOhttps://video.igem.org/w/bYBA7G4xpGd3L6EqiKUsCJhttps://video.igem.org/lazy-static/thumbnails/de6c4664-bf06-4480-bd18-57376ef8f5b0.jpgKorea_HS: Study of Cell-Penetrating Hyperstable Antibody scFv(Ras) - A Unique Ap... (2020) - Team...**Title:** Design and characterization of hyperstable cell-penetrating scFv targeting RAS **Abstract:** Antibodies are being developed as therapeutic agents. However, the targets of currently used antibodies are restricted to cell surface proteins due to their inability to go into the cell and maintain their function in the reducing environment of the cell. We have chosen a hyperstable single chain variable fragments(scFv(P5)) as a scaffold and this antibody was engineered to recognize human RAS protein by changing residues in the antigen-binding site(scFv(RAS)). We attached cell-penetrating peptide to the N-terminus to develop an antibody that can go into the cell(CPP-scFv(RAS)). We cloned, expressed, purified, and tested if CPP-scFv(RAS) works as designed. The development of antibodies that can work inside the cell will dramatically broaden the range of target molecules and the diseases that can be treated with therapeutic antibodies. [Wiki](https://2020.igem.org/Team:Korea_HS) | [Project Promotion](https://video.igem.org/videos/watch/2512d662-51fb-44af-a1f5-a691fad0a1bc)https://static.igem.org/peertube/streaming-playlists/hls/58e2f83f-e294-4f97-b341-7561c985196a/6c1c0fb8-e44f-4c2b-ab74-dad8252b9c3e-master.m3u8https://video.igem.org/videos/embed/bYBA7G4xpGd3L6EqiKUsCJ10380442020-10-31T11:04:40.611ZKoreaRepublicOfHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/oSiLZhmwM6t9gSBUjiPZEGhttps://video.igem.org/lazy-static/thumbnails/38b03d44-0ccc-48fc-9ecd-f378cb3d903e.jpgKAIT_Japan: E. coli that Create a Creative Environment (2020) - Team Presentation [English]**Title:** E. coli that Create a Creative Environment **Abstract:** Our goal in this iGEM jamboree is development of 'E. coli that create a creative environment' We've all suffered from the unpleasant odor of culturing E. coli .Therefore, we wanted to make unpleasant odors comfortable by development of E. coli that biosynthesize aromatic components. We decided on the sweet-smelling vanillin as the aromatic substance. In this research, the metabolic pathway to biosynthesize vanillin, we selected a pathway that metabolizes glucose to L-phenylalanine and introduces an enzyme gene to metabolize it to vanillin. Making the E. coli smell like vanilla may help alleviate unpleasant odors during the experiment and make it more enjoyable, allowing you to be more creative with your experiments. [Wiki](https://2020.igem.org/Team:KAIT_Japan) | [Project Promotion](https://video.igem.org/videos/watch/b0a2bd5f-afdd-4369-8ebd-d96487ab2346)https://static.igem.org/peertube/streaming-playlists/hls/b92f3193-34da-4aae-8d33-cd5b147c1af0/473ce667-db9b-4ff9-ae89-508349b2da5a-master.m3u8https://video.igem.org/videos/embed/oSiLZhmwM6t9gSBUjiPZEG4220422020-10-31T11:13:29.699ZJapanNewApplicationAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/mN9P9Y2YELwuak2w5WUMs2https://video.igem.org/lazy-static/thumbnails/e8b583e2-5c70-43e7-ba1f-86e42edd9393.jpgGunnVistaPingry_US: Odigos (2020) - Team Presentation [English]**Title:** Odigos: An Improved CRISPR-Cas9 Effective Guide RNA Predictor **Abstract:** CRISPRi is a powerful tool for modulating gene expression in human cells. By designing a gRNA homologous to the target gene of interest, one can achieve targeted knockdown of the specific gene of interest. However, with current methodologies, one has to screen multiple gRNA sequences for efficient targeting while minimizing off-target effects. We present a prediction model for identifying the best gRNA sequence for efficient gene targeting in human cells. Starting with experimental data from knocking down specific genes using several gRNAs in iPS cells, we leverage machine learning to inform better selection of the gRNA. Our tool will be invaluable for designing gene targeting gRNAs and will reveal underlying biochemical principles governing CRISPR efficiency. [Wiki](https://2020.igem.org/Team:GunnVistaPingry_US) | [Project Promotion](https://video.igem.org/videos/watch/9e64f472-73de-4e06-bf32-1cd5738cc11f)https://static.igem.org/peertube/streaming-playlists/hls/a8686af6-ec52-4189-837c-2f4563638039/bf59d359-96af-4570-bb37-f0183584d84a-master.m3u8https://video.igem.org/videos/embed/mN9P9Y2YELwuak2w5WUMs210880472020-10-31T11:17:14.486ZNorthAmericaUnitedStatesHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/bSt16S7ZXUqZpiAziT7GQjhttps://video.igem.org/lazy-static/thumbnails/ddf14526-ee32-4451-81a7-bad9c3dec8c2.jpgKSA_KOREA: Ligninator (2020) - Team Presentation [English]**Title:** Ligninatior: Biological Lignin Degradation Method for Paper Recycling **Abstract:** Production of high-quality recycled paper through biodegradation of lignin can decrease chemical byproducts and wastewater generated by existing paper production processes to significant environmental and economic benefit. Treating box paper and newspaper with laccase and dye decolorizing peroxidase (DyP) during the recycling process produced paper with improved brightness, texture, and permanence. The results demonstrate that synthetic biology can be used to produce recycled paper in a more environmentally friendly manner compared to chemical treatments used to produce recycled paper today. In addition, we have developed a biosensor and fluorometer pair to detect and measure phenolic compounds that are produced when lignin is dissolved. The pair can be used to monitor progress of lignin degradation in the paper recycling process and detect phenolic compounds in the environment. By expressing transporter of phenolic compounds in E.Coli, we have been able to obtain improved sensitivity compared to existing biosensors. [Wiki](https://2020.igem.org/Team:KSA_KOREA) | [Project Promotion](https://video.igem.org/videos/watch/7bbf561e-578b-455f-8b1b-30fdb97f84bd)https://static.igem.org/peertube/streaming-playlists/hls/5807372c-0412-4eda-8706-b020e0915d92/7bba23d0-726a-4f60-8b5f-6157b2a05fb2-master.m3u8https://video.igem.org/videos/embed/bSt16S7ZXUqZpiAziT7GQj11990622020-10-31T11:25:48.784ZHighSchoolKoreaRepublicOfAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/uKN9o6a1PYXX6Pzc9WCNE1https://video.igem.org/lazy-static/thumbnails/909f8cf8-29eb-45a8-91ba-1bf485151fe0.jpgAlma: Poisoned River (2020) - Team Presentation [English]**Title:** Poisoned River **Abstract:** The Pine River is found in central Michigan, near the campus of Alma College. Following the closure of the Velsicol Chemical Plant in 1978, many environmental pollutants -- such as DDT -- were improperly disposed of and allowed to leach into the surrounding soil and Pine River. These organochlorides are endocrine disruptors as well as possible carcinogens that have wreaked havoc on the local avian population. Several species of animals have estrogen receptors known to bind DDT, a known xenoestrogen. Linking this binding process to a reporting gene, such as RFP, within a microbe will allow for the detection of organochlorides, which can enhance broad spectrum screening of these contaminated areas both locally and globally. Ultimately, this biosensor has the potential to save thousands of dollars in the pollution cleanup effort as well as provide a basis for the development of future synthetic biology tools for the bioremediation of DDT. [Wiki](https://2020.igem.org/Team:Alma) | [Project Promotion](https://video.igem.org/videos/watch/5a8e20cd-a763-4fa2-ae07-3e1a1b4aab65)https://static.igem.org/peertube/streaming-playlists/hls/e8dd4d59-79f2-4853-b1a0-fb847fec8554/bd56ce52-567a-4cff-b930-d5aa5627d613-master.m3u8https://video.igem.org/videos/embed/uKN9o6a1PYXX6Pzc9WCNE198001172020-10-31T11:37:21.724ZEnvironmentUnitedStatesNorthAmericaYES2020 Team PresentationsNOhttps://video.igem.org/w/aAC4mzCKUmGkCTQn5mftPwhttps://video.igem.org/lazy-static/thumbnails/65f0ccea-00c6-4aea-a476-9c40a0d9aea8.jpgHZAU-China: Tooth Fairy (2020) - Team Presentation [English]**Title:** Tooth Fairy **Abstract:** Enamel, the basic material of tooth is a kind of hydroxyapatite whose arrangement is ordered and tight, making it the hardest part in human body. Nevertheless, it suffers from damages in our daily life due to many reasons such as physical knock, acid erosion and bacterial infection. In the early stage of enamel damage, it is usually difficult to notice changes on the teeth or in the oral environment. However, in the later stage, when a tooth is decayed or ruptured, even doctors are unable to completely repair the damaged tooth. Besides, the treatment is painful and expensive. Our Tooth Fairy project could be an innovative solution to this problem. A tooth fairy contains several genetic circuits that enable her to provide automatic and personalized repair for the damaged tooth enamel. In addition, users can also know their oral status owing to the report ability of a tooth fairy. [Wiki](https://2020.igem.org/Team:HZAU-China) | [Project Promotion](https://video.igem.org/videos/watch/83e2fc53-7123-49f8-9943-55bd4ac95cdc)https://static.igem.org/peertube/streaming-playlists/hls/4db7c1ef-16d8-46cc-b1c8-e12b2f0eb9c0/d762fa3f-e820-4cfc-8004-ca7eb5f96ae8-master.m3u8https://video.igem.org/videos/embed/aAC4mzCKUmGkCTQn5mftPw11590772020-10-31T11:59:42.521ZAsiaNewApplicationChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/9vifigpJL2GQg9RNj7Z24jhttps://video.igem.org/lazy-static/thumbnails/59e9e751-985d-46a6-a9cf-cf31a5a413b5.jpgNCTU_Formosa: E. Hybrid (2020) - Team Presentation [English]**Title:** E. Hybrid **Abstract:** Large scale biosynthesis in producing valuable molecules and proteins come into its embryonic stage for more sustainable and renewable ways of manufacturing and simultaneously faces multiple challenges in bioengineering. Incorporation of light-driven proton pump into non-phototrophic bacteria to produce additional proton motive force has gained interest in recent years as several bacterial rhodopsins are utilized for generating larger amounts of adenosine-5'-triphosphate(ATP) for alleviating the metabolic stress caused by excessive reliance on glucose and supporting bioengineering reactions. We expressed functional Gloeobacter rhodopsin from ancient bacteria, Gloeobacter violaceus, on E. coli Lemo-21 and evaluated its growth and metabolic reactions and found it potent in creating alternative proton motive force for oxidative phosphorylation and eventually proved it to be ideal for improving protein and molecule yields. Gloeobacter rhodopsin-based E. coli serves as a fundamental strain that uses light as energy sources, thus paving promising avenues for biosynthesis and creative daily usages. [Wiki](https://2020.igem.org/Team:NCTU_Formosa) | [Project Promotion](https://video.igem.org/videos/watch/6aba20a8-7692-4a62-94af-9bd8e94c7ee8)https://static.igem.org/peertube/streaming-playlists/hls/44e04ea1-694a-4f52-b52a-a01cc36fd46c/3de8f8ee-6719-4757-a9d4-5333c42b4084-master.m3u8https://video.igem.org/videos/embed/9vifigpJL2GQg9RNj7Z24j100903062020-10-31T12:54:52.265ZTaiwanFoundationalAdvanceAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/aWMv4tU4B5RG6BLEvgb8AHhttps://video.igem.org/lazy-static/thumbnails/75cf42a7-aeea-4073-b73a-96d3d3a37c8c.jpgGZ_HFI: P-Erfume: Engineering Probiotics to Reduce Intestinal Undesirable Odor (2020) - Team Pres...**Title:** P-Erfume: Engineering Probiotics to Reduce Intestinal Undesirable Odor **Abstract:** The unpleasant odor of farting leads to social embarrassment. Besides, patients who undergo enterostomy are confronting social distancing because of the acrid smell released from the stoma on their bellies. To solve the problems above, We genetically engineered probiotic Escherichia coli to decrease the production of main molecules that contribute to intestinal acrid smell (ammonia and hydrogen sulfide) and produce an aroma substance (myrcene). We mutate argA into argAfbr and knockout argR to enhance the conversion of ammonia into arginine, create several mutants of cysE gene to promote the conversion of hydrogen sulfide into cysteine, and construct a three-plasmids-system to produce myrcene. The result shows we significantly improved e.coli's ammonia production and cysteine synthesis; myrcene was produced successfully in relatively low production. For human practices, we did a series of activities (survey, expert visits, collaboration, exhibitions, lectures, etc) to improve our product design and promote the education of synthetics biology. [Wiki](https://2020.igem.org/Team:GZ_HFI) | [Project Promotion](https://video.igem.org/videos/watch/cb0ab6b6-5dcf-41a9-982f-e8c09217b89d)https://static.igem.org/peertube/streaming-playlists/hls/508873d8-eef1-4d31-80eb-3b450041e8f9/fef845d4-2a09-43c7-85e5-1511e1272445-master.m3u8https://video.igem.org/videos/embed/aWMv4tU4B5RG6BLEvgb8AH11990252020-10-31T12:27:01.413ZAsiaHighSchoolChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/9Et9RgZWzf5LmiVvgVDW9chttps://video.igem.org/lazy-static/thumbnails/a54f1a66-efa6-43ac-aa35-abb51f74ce66.jpgSYSU-Software: Maloadis (Machine Learning based Optimization and Automated Desig... (2020) - Team...**Title:** Maloadis (Machine Learning based Optimization and automated Design Platform with Image Search) **Abstract:** Synthetic biologists lack an integrated circuit design platform featuring DBTL (design, build, test, and learn) workflow. Many steps in the design can be automated to enhance efficiency and smooth their work. Besides, the massive data of genetic circuits and parts are not fully utilized. To address these problems, we create Maloadis, an integrated automated genetic circuit design platform. Maloadis implement automated top-down design with GeneNet algorithm, and is capable of designing and rating possible genetic circuits according to users' requirements. It also exploits the abundant information provided by genetic circuit images by extracting parts and structures from them to search for related previous work through trained neuro network. To improve success rate in wet-lab experiment, Maloadis predicts gene expression level with integrated models, and offers suggestions to shorten experiment cycle using Bayesian Optimization algorithm. We present Maloadis as a de novo approach to facilitate synthetic biology design automation. [Wiki](https://2020.igem.org/Team:SYSU-Software) | [Project Promotion](https://video.igem.org/videos/watch/e51f09be-4b3d-49f1-9c08-7a0cdb55f9d8)https://static.igem.org/peertube/streaming-playlists/hls/46281b1d-0069-47a1-b2e7-c2678c5b12ab/53679592-9a6e-4d9a-b3af-8d04222a8218-master.m3u8https://video.igem.org/videos/embed/9Et9RgZWzf5LmiVvgVDW9c8650502020-10-31T12:41:55.360ZChinaAsiaSoftwareYES2020 Team PresentationsNOhttps://video.igem.org/w/jGfQGqjGNGVwsKKUysZTJ5https://video.igem.org/lazy-static/thumbnails/b5d025ac-3038-4efa-b62f-b7d1c4177e95.jpgNanjing_NFLS: MIDAS (2020) - Team Presentation [English]**Title:** MIDAS: MFCs Improved in Different Aspects Safely **Abstract:** Microbial Fuel Cells (MFCs) are devices that convert chemical energy (even from waste water, applied in pollution treatment) to electrical energy by the action of microorganisms. In our project, we engineer electricity-production-bacteria (like Pseudomonas aeruginosa), by over-expressing genes of phzM, nadE, and rhlA (respectively responsible for three crucial electron producing processes in P. aeruginosa), to improve the electricity output of bacteria incubated MFCs. To ensure safety, we introduce a light controlled kill-switch, 'supernova' gene: when bacteria release into the bright environment from the dark chamber of MFCs, light will activate the gene which produces superoxide radical anions to kill the cells. Meanwhile, we intend to modify the hardware of MFCs: infuse certain concentration of heavy metal ions into the anode to facilitate the electricity generation, and use graphite combined with Mn2+/Fe2+ as the cathode so that the cathode can create Fenton reagent to degrade some recalcitrant chemicals. [Wiki](https://2020.igem.org/Team:Nanjing_NFLS) | [Project Promotion](https://video.igem.org/videos/watch/ae637f0e-9190-4165-856b-5db7dea29339)https://static.igem.org/peertube/streaming-playlists/hls/97636454-2853-4707-b51e-3768f79739bc/b7553122-30f9-4dc8-a34c-60f4f8833b3b-master.m3u8https://video.igem.org/videos/embed/jGfQGqjGNGVwsKKUysZTJ511850422020-10-31T12:52:18.710ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/iddoocYvvSsVEbMmYhU8rJhttps://video.igem.org/lazy-static/thumbnails/5c414d63-57f0-4acd-82fb-85224999ae4c.jpgFAFU-CHINA: Integrated Fermentation of Bioethanol (2020) - Team Presentation [English]**Title:** Design an integrated fermentation system with Juncao as raw material **Abstract:** This year, we want to use Juncao to make bioethanol. We designed an integrated fermentation system that consists 3 chassis (E. coli & K. Marxianus & Pichia Pastoris) and the control elements that link them. The biosensor based self-regulation is realized by sensing the changes in the concentration of various intermediates during fermentation. Through the above design, each reaction stage can be organically combined without interference. In addition, we also want to modify the fiber corporeal through rational design of proteins, so that it has the ability to break down the structure of cell wall, and finally achieve the effect of degrading lignin, cellulose and hemicellulose. [Wiki](https://2020.igem.org/Team:FAFU-CHINA) | [Project Promotion](https://video.igem.org/videos/watch/549b57d8-686f-4184-a6be-2f6e5ea70454)https://static.igem.org/peertube/streaming-playlists/hls/8b5fea61-6b98-4171-8aec-569d4ace9d70/64dfc215-337d-4d8d-9a57-46882d2566c3-master.m3u8https://video.igem.org/videos/embed/iddoocYvvSsVEbMmYhU8rJ11960592020-10-31T13:06:47.373ZAsiaNotrackChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/q5whaJ7JnrVh9fduJk7Bv2https://video.igem.org/lazy-static/thumbnails/4b508f8f-1a32-4c64-9ca1-dfa3add16e0f.jpgTJUSLS_China: PER-CRUSHER (2020) - Team Presentation [English]**Title:** PET-CRUSHER **Abstract:** PETase has the highest degradation activity of highly crystallized PET of all PET-degrading enzymes reported to date. However, its low thermal stability limits its ability for eÔ¨Écient enzymatic degradation. Considering the glass transition temperature of PET is around 75¬∞C, above which the polyester chain of PET performs in a high elastic state and the degradation is promoted, we accordingly modify PETase with a series of rational protein engineering strategy to enhance its thermal stability and therefore improve degradation efficiency. Variants are screened and verified through a series of bioinformatics strategy including computational evaluation, molecular visualization, docking and molecular dynamics simulation. Particularly, a variant with 12 mutations is expected to have a Tm value of 80.08¬∞C, increased by 31.27¬∞C in comparison with PETaseWT. Our project helps to increase the possibility of achieving the biodegradation of highly crystallized PET, contributing to solving environmental and health problems caused by the abuse of PET. [Wiki](https://2020.igem.org/Team:TJUSLS_China) | [Project Promotion](https://video.igem.org/videos/watch/1c6a698c-5298-429e-8fd6-2efce00ac5af)https://static.igem.org/peertube/streaming-playlists/hls/c2fcf67e-492b-4607-b966-9596121dd6df/6c01bbaa-c3e9-4e69-b62e-d93311b0996c-master.m3u8https://video.igem.org/videos/embed/q5whaJ7JnrVh9fduJk7Bv211920462020-10-31T13:35:20.097ZChinaEnvironmentAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/3eRh4RsuM8e2WvYpVCKbDJhttps://video.igem.org/lazy-static/thumbnails/53540804-9dcb-4673-babe-dd0a4e13bf1d.jpgNottingham: NeuroTone (2020) - Team Presentation [English]**Title:** NeuroTone: The microbiome and neurodegeneration **Abstract:** The University of Nottingham iGEM team have been developing a novel biotherapeutic to delay the onset and progression of neurodegenerative diseases, using synthetic biology. By engineering the bacterium Clostridium sporogenes to secrete the ketone D-Œ≤-Hydroxybutyrate (DBHB), we achieve neuroprotection by ketone-mediated relief of oxidative stress in the brain. This will occur via delivery of our C.sporogenes spores to the gut, where an established culture will produce DBHB - which enters the blood stream and crosses the blood-brain barrier, utilising the gut-brain axis. Using mathematical modelling, we identified a pathway to favour microbial DBHB production and have investigated how the culture size and metabolic activity could be regulated. Recognising potential concerns regarding genetically modified organisms, we designed strict controls to ensure our biotherapeutic cannot escape into the environment. Through several outreach projects alongside consultations with key stakeholders, we have engaged the wider community to inform and shape our work. [Wiki](https://2020.igem.org/Team:Nottingham) | [Project Promotion](https://video.igem.org/videos/watch/6d55c197-ab8c-4121-97fa-11ee4ed21d55)https://static.igem.org/peertube/streaming-playlists/hls/1221507a-3547-4b1c-91e8-df95af55f1cc/a0697fd9-b731-43f9-8a8a-3d9c8aefb6a9-master.m3u8https://video.igem.org/videos/embed/3eRh4RsuM8e2WvYpVCKbDJ11620912020-10-31T13:44:08.012ZTherapeuticsEuropeUnitedKingdomYES2020 Team PresentationsNOhttps://video.igem.org/w/hQeSzgSV6ziPaBpX4n5TAXhttps://video.igem.org/lazy-static/thumbnails/123a66d3-b9ab-4035-b0dc-4e15d4aaa30c.jpgAUC-EGYPT: A SynBio-based SARS-CoV-2 therapeutic solution: orchestrating inducib... (2020) - Team...**Title:** A SynBio-based SARS-CoV-2 therapeutic solution: orchestrating inducible interference using virus-like particles, toehold riboswitches and siRNAs. **Abstract:** The COVID-19 pandemic is without doubt the biggest health crisis of the 21st century. Currently, there is no specific treatment or vaccine for the disease. In this phase-I project, we propose a SynBio-based therapeutic solution for COVID-19. Our approach consists of a SARS-CoV-2-like particle that is capable of targeting cells expressing the ACE2 receptor. Upon delivery, our sensing moiety (Toehold Riboswitch adjusted for mammalian systems) is constitutively expressed. If SARS-CoV-2 triggers are present within the cell, the sensor will unfold initiating a GAL4-VP16-dependent interference pathway. Consequently, we designed two de novo siRNAs that play a critical role in our antiviral therapeutic approach. They inhibit viral replication via RISC-mediated degradation of the replicase region of SARS-CoV-2 mRNA. We also created a deterministic model to predict the levels of siRNAs as well as a structural model to predict the thermodynamic stability of our toehold riboswitches. [Wiki](https://2020.igem.org/Team:AUC-EGYPT) | [Project Promotion](https://video.igem.org/videos/watch/2bb9dd02-d8cb-41ec-bfda-035447f11e64)https://static.igem.org/peertube/streaming-playlists/hls/884e77ea-4e50-43e5-a790-7f4802af6c27/dfee5a3a-c918-4e2c-8202-33e833e6efe1-master.m3u8https://video.igem.org/videos/embed/hQeSzgSV6ziPaBpX4n5TAX11930792020-10-31T15:26:50.635ZTherapeuticsEgyptAfricaYES2020 Team PresentationsNOhttps://video.igem.org/w/x4TaURgQrjjSHEgKBFKv1qhttps://video.igem.org/lazy-static/thumbnails/1cddf5da-077c-4f62-995c-398e5528fb71.jpgSDU-Denmark: PROSTATUS (2020) - Team Presentation [English]**Title:** PROSTATUS **Abstract:** No abstract [Wiki](https://2020.igem.org/Team:SDU-Denmark) | [Project Promotion](https://video.igem.org/videos/watch/cd382a07-4b2a-4336-8f3e-f4068693066c)https://static.igem.org/peertube/streaming-playlists/hls/fb9610a0-5774-4c7e-926e-43663c1b2674/9e87962d-0dea-4f5a-b2b3-185d82062bd1-master.m3u8https://video.igem.org/videos/embed/x4TaURgQrjjSHEgKBFKv1q11770442020-10-31T14:16:02.910ZEuropeDenmarkDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/dT4sULPA9H53gjNF5Mk9iNhttps://video.igem.org/lazy-static/thumbnails/a1b68547-f9c8-48e9-8258-79a1b04afb9e.jpgPuiChing_Macau: FireE.coli (2020) - Team Presentation [English]**Title:** FirE. coli : Engineering E. coil to produce safe and eco-friendly flame retardant proteins **Abstract:** Current flame retardant materials are known to be hazardous to human body and our environment. To solve this problem, we here developed Eco-friendly and harmless flame retardant E. coli. While previous iGEM teams and research groups attempted to produce flame retardant proteins, the proteins they produced cannot retain on the surfaces of objects and can be washed away easily, precluding the application of these proteins. To address the problem, we engineered E. coli to produce flame retardant proteins (SR or casein) fused with surface adhering proteins (cellulose binding domain or mussel adhesive proteins). Thereby, we improved previous iGEM flame retardant systems, which contain only flame retardant proteins. We here proved the protein expression, fire retardancy and sustainability of our flame retardant systems, matching our previous modelling results. Additionally, we also engineered an easy-to-make vertical burning test, helping us and future iGEM teams to test flame retardants. [Wiki](https://2020.igem.org/Team:PuiChing_Macau) | [Project Promotion](https://video.igem.org/videos/watch/0d63e46a-eb9d-4b85-8159-d0af167e0940)https://static.igem.org/peertube/streaming-playlists/hls/684ebb1e-6f16-4ef2-a169-181b9cc1a730/a3b6ff02-ae2b-4279-8a69-59c1faf8b24d-master.m3u8https://video.igem.org/videos/embed/dT4sULPA9H53gjNF5Mk9iN11800662020-10-31T14:31:40.508ZMacaoHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/tduKX37UkkB3RmNi1MyT4Ehttps://video.igem.org/lazy-static/thumbnails/2875ec69-28d4-4f44-8a6e-0667cd0ef17f.jpgNantes: A3 Project (2020) - Team Presentation [English]**Title:** A3 Project - Algal Acquired Acid **Abstract:** Green macroalgae (Ulva spp.) have been poisoning oceanic coastlines for decades through the production of a toxic gas: hydrogen sulfide (H2S). The collection of algae is currently a costly and unprofitable process. Our project aims to enhance the value of the collected algae. To do so, we plan to target ulvan, the main component of green algae's cell wall, using degradation enzymes and recombinant sulfatases. Once produced by transformed bacteria, the enzymes will be added to a tank of a bioreactor, filled with algae and sulfate-reducing bacteria (SRBs) which are responsible for the production of H2S. The H2S produced in the tank will be transformed into sulfuric acid (H‚ÇÇSO‚ÇÑ), a useful compound for many industries such as the production of detergents, textiles and many others products. Our project could constitute a proof of concept for a subsequent industrial optimization. [Wiki](https://2020.igem.org/Team:Nantes) | [Project Promotion](https://video.igem.org/videos/watch/cadee7a4-a117-436a-8cee-3477a3ec16c9)https://static.igem.org/peertube/streaming-playlists/hls/dc656442-f25b-438a-a24b-2b00848e3b10/e27085b1-097d-464a-90c6-a78d825f8b75-master.m3u8https://video.igem.org/videos/embed/tduKX37UkkB3RmNi1MyT4E107101042020-10-31T14:57:46.671ZEuropeEnvironmentFranceYES2020 Team PresentationsNOhttps://video.igem.org/w/inDCnqRbaJM8DWwtTBWq8qhttps://video.igem.org/lazy-static/thumbnails/4405c254-cedc-4a24-820f-df3b50b0b9c0.jpgNOVA_LxPortugal: PineNematoFighters (2020) - Team Presentation [English]**Title:** Introducing Pseudomonas putida in the fight against the pine wood nematode Bursaphelenchus xylophilus **Abstract:** Pinus pinaster is a tree species native to the Mediterranean region and susceptible to Pine Wilt Disease (PWD), a deadly pest caused by a nematode, Bursaphelenchus xylophilus, that affects several areas across the globe, including Portugal. The transmission of this disease is mediated by insect vectors, pine sawyer beetles of the genus Monochamus, that carry B. xylophilus inside their tracheal system and on their body surfaces. Currently, the most used control methods include the elimination of attacked trees, the use of traps to capture the vector insect or spraying trees with insecticides to prevent the insect vector's maturation feeding. We aim using our knowledge in synthetic biology to prevent the economic and environmental damage caused by PWD by introducing in the pine tree's microbiome a genetically engineered Pseudomonas putida, capable of producing the nematicidal compound spectinabilin when triggered by the tree's stress response under the attack of the insect vector. [Wiki](https://2020.igem.org/Team:NOVA_LxPortugal) | [Project Promotion](https://video.igem.org/videos/watch/c5427580-1be5-4f5c-b264-053048f61754)https://static.igem.org/peertube/streaming-playlists/hls/8cb12a36-2d5e-4c4a-aba6-5a07b994b94e/e26a17b6-ce15-4818-afb5-9a1438a6fcee-master.m3u8https://video.igem.org/videos/embed/inDCnqRbaJM8DWwtTBWq8q11900742020-10-31T15:16:01.095ZPortugalEnvironmentEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/bPjUvTyWqqNnhuy7on2wDNhttps://video.igem.org/lazy-static/thumbnails/4981535b-561d-4e34-aa4f-7c71af1c0aba.jpgUGent2_Belgium: Bubbly (2020) - Team Presentation [English]**Title:** Bubbly: an edible pearl for intestinal microbiome modulation **Abstract:** The WHO estimates that more than 300 million people worldwide suffer from depression. Research has shown that the gut microbiome alterations play a key role in a person's stress reactivity and influences anxiety-like and depression-like behaviors. In brief, if we can manage to alter the gut microbiome's functionality, the bidirectional communication might shift and lead to less anxiety and depression-like behaviors. We believe that Bubbly can revert depression and to bring relief to people suffering from depression. Our pearl, a novel food supplement, is composed of three major components: naringenin, a flavonoid that works anti-inflammatory, kojibose, a prebiotic sugar with beneficial effects on the gut microbiome and vitamin-B12. Now, we are producing naringenin in the lab and working on the formulation of the pearl. Our pearl can be sold as an independent product and could also be added to already existing foods as probiotics. [Wiki](https://2020.igem.org/Team:UGent2_Belgium) | [Project Promotion](https://video.igem.org/videos/watch/f118a71c-f451-40ef-b31c-b183b0271d58)https://static.igem.org/peertube/streaming-playlists/hls/5796fea3-4c26-4845-ada9-025b112d7080/8bbec140-8bb7-4402-9137-16594bd7261a-master.m3u8https://video.igem.org/videos/embed/bPjUvTyWqqNnhuy7on2wDN9160312020-10-31T15:40:15.654ZEuropeFood&NutritionBelgiumYES2020 Team PresentationsNOhttps://video.igem.org/w/cirBFkT4H1nmzNM1ZbSzVAhttps://video.igem.org/lazy-static/thumbnails/6027309b-ef9d-4ee0-a425-0b814387eb26.jpgDeNovocastrians: Engineering benzene-degrading bacteria (2020) - Team Presentation [English]**Title:** Engineering microbes to detect and degrade pollutants **Abstract:** Through our project we hope to eliminate benzene in polluted environments using bioremediation, a process which utilises‚ÄØmicrobes‚ÄØto degrade‚ÄØhazardous substances. Compared to traditional remediation practices, bioremediation is cheaper and more sustainable. First, we are creating a biosensor that will easily detect and measure environmental levels of benzene and catechol through a fluorescent protein expression system. Next, our project will identify and isolate the benABCDE gene cluster (benzene transport and degradation genes) from specialized bacteria that naturally import benzene into their cells and break it down into energy intermediates for growth in contaminated environments. Following this, we will insert these genes into a plasmid cloning vector and transform the model laboratory species Escherichia coli into a practically useful benzene degrader to clean up polluted sites on land and in water. [Wiki](https://2020.igem.org/Team:DeNovocastrians) | [Project Promotion](https://video.igem.org/videos/watch/4b3ede63-d0af-4c12-9554-cdb143185969)https://static.igem.org/peertube/streaming-playlists/hls/5b83f48a-cd4a-4cd5-a523-9b543677e558/00548919-cd83-44d6-bf0f-017a7b2b60b2-master.m3u8https://video.igem.org/videos/embed/cirBFkT4H1nmzNM1ZbSzVA11950572020-10-31T16:02:59.493ZAustraliaAsiaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/k9ofEgdb97ftVveDEaw6rkhttps://video.igem.org/lazy-static/thumbnails/ee3cdd62-284b-4fd2-95ff-3efb6da93f18.jpgBielefeld-CeBiTec: WavySense (2020) - Team Presentation [English]**Title:** WavySense: Don't take your hormones, measure them! **Abstract:** Have you ever thought about contraception? Did you know most contraceptives are invasive and can have severe side effects? A new, innovative and non-invasive method is needed. One that reliably reports the user's fertility. Therefore, we developed WavySense: Contributing to gender equality by supporting and empowering women, lacking any side effects. WavySense enables users to determine the current fertility by directly measuring the characteristic sex hormones estrogen, progesterone and luteinizing hormone in urine using the surface acoustic wave technique. An electronic module induces waves in a piezoelectric crystal, which are phase-shifted by mass changes on the surface. We produced hormone-specific antibodies in E. coli and single chain variable fragments for comparison. Immobilized on the gold-coated surface of the crystal, antibody-antigen binding leads to a phase shift which is detected by the electronics and transferred to our user-friendly app. It tracks, evaluates and visualizes recent measurements, displaying the current fertility status. [Wiki](https://2020.igem.org/Team:Bielefeld-CeBiTec) | [Project Promotion](https://video.igem.org/videos/watch/2b291dad-45db-4e31-b196-eed8364c7017)https://static.igem.org/peertube/streaming-playlists/hls/9b094c66-fa04-4998-9cbd-96ef7850ae31/b5d21339-1112-4d21-985f-a718846d73cf-master.m3u8https://video.igem.org/videos/embed/k9ofEgdb97ftVveDEaw6rk119901192020-10-31T16:21:02.413ZGermanyEuropeDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/sKJ4A8U7rWnyXFzFwxHSp9https://video.igem.org/lazy-static/thumbnails/9030ebec-34fe-4456-b003-8d192b18d610.jpgUESTC-Software: CPD3DS (2020) - Team Presentation [English]**Title:** CPD3DS - Classification of Protein Domains in 3D Shape to design a standard set of protein bricks **Abstract:** Proteins¬†are¬†responsible¬†for¬†most¬†of¬†the¬†physiological¬†functions¬†in¬†the¬†cells,¬†and¬†many¬†synthetic¬†biologists¬†focus¬†on¬†¬†designing¬†customized¬†proteins¬†according¬†to¬†demands.¬†Nowadays,¬†the protein¬†design¬†starts¬†from¬†a¬†new¬†amino¬†acid¬†sequence¬†in¬†most¬†cases,¬†¬†the¬†workload¬†is¬†undoubtedly¬†huge.¬†At¬†the¬†same¬†time,¬†the¬†structure¬†of¬†a¬†protein¬†is¬†often¬†closely¬†related¬†to¬†the¬†function¬†of¬†protein.¬†Our¬†project,¬†CPD3DS,¬†¬†directly¬†uses¬†the¬†structural¬†domains¬†as¬†the¬†basic¬†unit¬†to¬†analyze¬†protein¬†structures.¬†To¬†get¬†a¬†set¬†of¬†protein¬†bricks,¬†¬†domains¬†were¬†classified¬†by¬†their¬†shape¬†features,¬†and¬†3D-Zernike¬†descriptor¬†were¬†used¬†to¬†cluster¬†all¬†domains¬†in¬†existing¬†databases.¬†We¬†developed¬†a¬†user-friendly¬†website,¬†termed¬†CPD3DS,¬†for¬†retrieval,¬†analyses¬†and¬†visualization¬†of¬†classified¬†protein¬†domains.¬†In¬†addition,¬†we¬†printed¬†a¬†set¬†of¬†our¬†protein¬†bricks¬†for¬†teaching¬†and¬†popularize¬†synthetic¬†biology. [Wiki](https://2020.igem.org/Team:UESTC-Software) | [Project Promotion](https://video.igem.org/videos/watch/8f3dca58-64b9-41fd-9a38-ae75b4a8b9ca)https://static.igem.org/peertube/streaming-playlists/hls/d8a88241-f839-4d1f-854c-ce362b8bb79e/e45a2bea-ba80-44a0-b56a-535ed1fcc129-master.m3u8https://video.igem.org/videos/embed/sKJ4A8U7rWnyXFzFwxHSp911410272020-10-31T16:35:57.153ZChinaAsiaSoftwareYES2020 Team PresentationsNOhttps://video.igem.org/w/rtPnVJMT2rTQg97UgBPzgMhttps://video.igem.org/lazy-static/thumbnails/b245bdb1-6cba-44c5-8f5f-ee0d79323554.jpgZJUT_China_B: Multivirus_Monitor (2020) - Team Presentation [English]**Title:** Multivirus Monitor **Abstract:** The global pandemic of COVID-19 highlights the great importance of detecting viruses. We aim to construct a 'Multivirus Monitor' as an application of CRISPR Cas13 in point-of-care diagnostics, which could detect multiple viruses in one pot. We tested the feasibility of the platform by testing the specificity between Cas13 orthologs and their sequence-specific reporters. We designed a multivirus detecting device which combines sample processing,amplification and detecting chambers. Based on fluorescence detecting,the detecting results can be processed and transmitted to mobile terminals to make the results visible. We are designing an interactive platform called 'virusee' which could provide optimal solutions and suggestions to users. Furthermore,we are constructing a database called 'vivalibrary',which could provide users with viral information and its corresponding crRNA. Conceived as a multivirus detecting and feedback platform for rapid point-of-care diagnostics, Multivirus Monitor can be a promising weapon in the unpredictable fight against viruses. [Wiki](https://2020.igem.org/Team:ZJUT_China_B) | [Project Promotion](https://video.igem.org/videos/watch/ec30912a-0370-484a-937f-fb62ae5c8baa)https://static.igem.org/peertube/streaming-playlists/hls/ce56befc-e4b0-45d6-a174-33b7c4368a1f/6047bd94-7a7e-48a5-82fa-8c1cf77dfe95-master.m3u8https://video.igem.org/videos/embed/rtPnVJMT2rTQg97UgBPzgM11980342020-10-31T16:41:02.737ZChinaAsiaDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/f8v5eGqRACF6j8H37avJiihttps://video.igem.org/lazy-static/thumbnails/b0bb79c6-da95-4288-836d-95a3c788a96e.jpgGW_DC: BactoLEAD the way to Cleaner Water (2020) - Team Presentation [English]**Title:** BactoLEAD the Way to Cleaner Water **Abstract:** Lead is a heavy metal that can contaminate potable water through lead pipes, solder, paint, and household fixtures. This potentially fatal heavy metal is a neurotoxin that accumulates in soft tissue and bones, leading to neurological disorders. In 2017, exposure to lead caused one million deaths worldwide. Current water filtration solutions are effective; however, they are not affordable, sustainable, or renewable. Our team is genetically engineering a bacteria that naturally filters lead to have biosensing properties, allowing easy detection of lead ion levels in solution by monitoring lead operon activation for lead filtration. The modified bacteria will express fluorescent proteins that allow us to visually monitor lead ion concentration sustainably and affordably. Our goal is to provide a user-friendly, accessible lead detection and filtration device to ensure safe drinking water globally. [Wiki](https://2020.igem.org/Team:GW_DC) | [Project Promotion](https://video.igem.org/videos/watch/ef5e9ee8-100a-492d-a7e2-1ac3a8eed747)https://static.igem.org/peertube/streaming-playlists/hls/726c1084-bffd-4be5-932e-a48081a37bab/0a122c87-e0d7-4f0e-a668-3b7ab58d48d8-master.m3u8https://video.igem.org/videos/embed/f8v5eGqRACF6j8H37avJii10150162020-10-31T16:53:03.611ZEnvironmentNorthAmericaUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/wThMLRzxVcBqUUzRPFcudAhttps://video.igem.org/lazy-static/thumbnails/2df74778-ff87-48aa-b3b8-c92a0d505d21.jpgNJTech_China: Pheromone Revolution (2020) - Team Presentation [English]**Title:** Pheromone revolution: mating pathway-based promoter engineering **Abstract:** Cell fusion is a fundamental biological process required for the entire development of most eukaryotic organisms, from fertilization to organogenesis. Pheromone-mediated mating in the budding yeast Saccharomyces cerevisiae provides a genetically accessible model system to investigate cell-cell fusion. However, the high price of pheromone limits the development of related research. In our project, we constructed mutants to reshape signaling pathway, trying to build a chassis that responds to cheaper inducers. We characterized the intensity of three mostly pheromone responsive promoters, pfus2, pprm1, and pfig1. We innovatively evaluated the efficiency of these promoters (natural and synthetic) with pheromone responsive elements (PRE) of various copy numbers and directions. Our results expand the promoter toolbox to finely tune gene expression levels for efficient cell factories and biosensors. [Wiki](https://2020.igem.org/Team:NJTech_China) | [Project Promotion](https://video.igem.org/videos/watch/436204a0-92bd-4828-905c-01292ac78123)https://static.igem.org/peertube/streaming-playlists/hls/fa1b7053-d5e2-4c91-b9f1-e4c026eb1912/d76c5d24-49d2-4973-ac7f-ba090e2b81c5-master.m3u8https://video.igem.org/videos/embed/wThMLRzxVcBqUUzRPFcudA9090412020-10-31T17:23:31.737ZAsiaFoundationalAdvanceChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/1FkXY9zkbqZyTXt6oDfv7nhttps://video.igem.org/lazy-static/thumbnails/8e1fbe78-fca0-4ef8-9522-dd0f0bdc758b.jpgWorldshaper-Wuhan: miR-155 Sensor based on LncRNA Sequence Predict Chemoresistan... (2020) - Team...**Title:** miR-155 Sensor based on LncRNA Sequence Predict Chemoresistance in Breast Cancer patients **Abstract:** Breast cancer is the most common cancer among women and is the second cancer frequently occurring worldwide of newly-diagnosed cancers. Resistance to chemotherapy and radiotherapy remains the major factor for treatment failure and death in breast cancer patients. Thus, there is an urgent search for new, non-invasive, biomarkers to evaluate the effect of chemotherapy and radiotherapy in breast cancer patients. A growing number of studies highlights the role of miR-155 in breast cancer drug and radio resistance development. Moreover, studies indicated that lncRNAs could act as sponges to compete miRNAs, participating in various biological processes. This mechanism gives rise to our idea that a sponge RNA based on the sequences of lncRNA with binding sites complementary to the sequence of miR-155 could monitor the expression of miR-155, which offers a non-invasive approach for evaluate the effect of chemotherapy and radiotherapy in breast cancer patients. [Wiki](https://2020.igem.org/Team:Worldshaper-Wuhan) | [Project Promotion](https://video.igem.org/videos/watch/8fcd67c3-0104-4dec-9f78-d805e4174fce)https://static.igem.org/peertube/streaming-playlists/hls/057e4f95-b101-486b-b8a7-32805393d385/ea3acb05-bf8f-473b-a515-874e8d087bd7-master.m3u8https://video.igem.org/videos/embed/1FkXY9zkbqZyTXt6oDfv7n11500432020-10-31T17:31:54.510ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/ogcicKgscmjq6v6eb1wj5Xhttps://video.igem.org/lazy-static/thumbnails/6bd90ef0-ac27-4fca-b9ab-2ac70001d27d.jpgPeking: Music Updating by Storage and Editing (2020) - Team Presentation [English]**Title:** Music Updating by Storage and Editing **Abstract:** As a high-capacity, high-density storage medium, DNA has attracted the interest of many scientists. Based on the function of DNA to store information, using gene editing methods to change the information stored in DNA has great operability. In our project, music information is stored in plasmid DNA of E. coli with designed coding rules, and gene editing technology is used for artificial mutation. This is also brought out with in silico experiment. Through the scoring rules based on music theory and references, the mutated music information is screened, and music pieces with certain value are obtained, to achieve music evolution. At the same time, we have also used similar principles and methods to store and evolve video information. Together, this is a biological process of artistic creation, we hope to give an example of bio-art creation and inspire more artists to create in this interesting way. [Wiki](https://2020.igem.org/Team:Peking) | [Project Promotion](https://video.igem.org/videos/watch/a60577df-cfda-4d8f-a0a7-dbc10f3dec3a)https://static.igem.org/peertube/streaming-playlists/hls/b4482b39-59dc-4a30-9668-1e06a1c48b57/ab9c0dbe-f6a7-4db9-a727-5671a5ab1c03-master.m3u8https://video.igem.org/videos/embed/ogcicKgscmjq6v6eb1wj5X8190562020-10-31T17:44:59.635ZAsiaChinaOpenYES2020 Team PresentationsNOhttps://video.igem.org/w/eyY2qmxWs8BZkU3jtoAecxhttps://video.igem.org/lazy-static/thumbnails/1692eb69-da99-4414-8a78-bb8849a61ec0.jpgTongji_Software: Synthesis Navigator (2020) - Team Presentation [English]**Title:** Synthesis Navigator **Abstract:** NowadaysÔºåthere is a rising demand for designing and implementing metabolic pathways. However, Some biology researchers are faced with complicated metabolic pathways just like sailors trapped in the ocean, and our team's integrated platform, 'Synthesis navigator', can assist them in the design of metabolic pathways. The first part of our project is an integrated database named 'Synthetic Bay ', which contains much more data than last year, for synthetic biology sailors to get supplied. Secondly, in order to construct a route in metabolism oceans, synthetic biology sailors can input the starting and target compound (or one of them) then Synthesis navigator can search out a number of possible metabolic pathways from the database. Last, what counts is that facing unknown ocean environment, sailors can utilize the Hybrid Metabolic Simulation to predict the metabolic situation of chassis organisms thus avoiding the frustrated adventure in metabolic ocean. [Wiki](https://2020.igem.org/Team:Tongji_Software) | [Project Promotion](https://video.igem.org/videos/watch/93284aef-e50c-40e7-84bb-edf5f1a88fb1)https://static.igem.org/peertube/streaming-playlists/hls/6de12129-1411-40b2-a1e3-19fe7949e181/851ea2cb-7ee1-4075-89d8-609f6d271de4-master.m3u8https://video.igem.org/videos/embed/eyY2qmxWs8BZkU3jtoAecx10440542020-10-31T17:55:34.676ZSoftwareChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/i6yBxrMLaBXbn62g3E9csdhttps://video.igem.org/lazy-static/thumbnails/543c0cb4-7f1a-43c2-a9da-eb3574642adb.jpgTechnion-Israel: ACT (2020) - Team Presentation [English]**Title:** ACT. Anti-COVID-19 Technology: A hydrogel-based skin-screen containing proteins that act as 'decoy proteins' **Abstract:** It is now known that SARS-CoV-2 enters human cells through binding between its spike proteins ('S') and the ACE2 membranal proteins that are found on our cells. Hence, by occupying these 'S', infection of the host cells could be drastically reduced or completely blocked. To achieve our goal, we developed a novel hydrogel-based skin-screen containing 'decoy proteins' particles that reduce the virus's ability to infect. Our product will be effective for hours, won't damage the skin's microbiome and will be easily removed with water. To capture the 'S', we'll use a mutated ACE2 (engineered for stronger linkage), and/or Sybodies (synthetic single-domain nanobodies) with the full antigen-binding capacity specifically to those 'S'. We have two delivery directions for both proteins: Microgel beads that strongly bind His-tagged proteins, and B.subtilis spore surface display technique. ACT. provides an active prophylactic solution that ensures further hurdles for the viral infection, thus flattening the curve. [Wiki](https://2020.igem.org/Team:Technion-Israel) | [Project Promotion](https://video.igem.org/videos/watch/119b1351-1817-4893-9098-562628a72c2e)https://static.igem.org/peertube/streaming-playlists/hls/8a722ca6-bd87-4f83-8b94-3e762e5ee29c/ae6248b4-b97f-4dd0-b059-e61a95dd75b3-master.m3u8https://video.igem.org/videos/embed/i6yBxrMLaBXbn62g3E9csd113601322020-10-31T18:09:50.323ZIsraelAsiaNewApplicationYES2020 Team PresentationsNOhttps://video.igem.org/w/dbvupKZcSwybxmV22FsuYihttps://video.igem.org/lazy-static/thumbnails/9c85d491-c514-4e39-9717-68a2f8ab9af5.jpgJNFLS: Bacterial cellulose applied for making mask (2020) - Team Presentation [English]**Title:** Bacterial cellulose applied for making mask **Abstract:** Now there are more than 200 million nonbiodegradable masks abandoned to the environment every day due to the pandemic novel coronavirus. We are trying to make a new antibacterial and color-changing mask using bacterial cellulose which is biodegradable. And its translucency is very benefit for facial recognition without taking off the mask. [Wiki](https://2020.igem.org/Team:JNFLS) | [Project Promotion](https://video.igem.org/videos/watch/c0ded663-f843-423d-81ef-828e49831bcc)https://static.igem.org/peertube/streaming-playlists/hls/62a5467e-8279-4550-9717-23be32cc0c91/b9fa47c9-9719-4f28-b6c4-639c6bd04b7f-master.m3u8https://video.igem.org/videos/embed/dbvupKZcSwybxmV22FsuYi11410362020-10-31T18:16:16.299ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/nR2MrxiRbRwXNmJPQDz3rwhttps://video.igem.org/lazy-static/thumbnails/b0d6c5b1-685f-4522-91d0-62857feaa955.jpgSorbonne_U_Paris: The Chlamy Cleaner (2020) - Team Presentation [English]**Title:** The Chlamy Cleaner, a microalgae filter to purify water. **Abstract:** During the 2024 Olympic Games, Paris wants to host the triathlon swimming events in the Seine. However, the water is polluted: pesticides, hormones and antibiotics are present and might have a negative effect on the environment and human health. Our goal is to develop a solution to purify water. Using Chlamydomonas reinhardtii as a chassis, we designed a microalgae filter capable of retaining and degrading these harmful compounds. We focused our efforts on Atrazine, a banned herbicide but still detectable in the Seine. We expressed four enzymes from the bacteria genera Pseudomonas in C. reinhardtii using the Golden Gate Modular Cloning (MoClo). This newly added degradation pathway aims at degrading Atrazine into a less hazardous product. To ensure additional safety, we integrated a 'kill switch' device based on UV-sensitive nuclease genetic circuit leading to the death of microalgae which could escape in the wild. [Wiki](https://2020.igem.org/Team:Sorbonne_U_Paris) | [Project Promotion](https://video.igem.org/videos/watch/e478c17e-3d45-49c5-a688-3ddeaed8bbb1)https://static.igem.org/peertube/streaming-playlists/hls/b0e874a7-9abd-409f-85ac-aa5656dfeb48/998ac33f-8cb3-454d-8897-f0aa7d393c61-master.m3u8https://video.igem.org/videos/embed/nR2MrxiRbRwXNmJPQDz3rw11990842020-10-31T19:35:03.846ZEuropeFranceEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/o7Xg4i3UwYyBaTPxxyyKL4https://video.igem.org/lazy-static/thumbnails/f2b585f3-485a-49b3-afee-045de7ba9997.jpgMIT: Mammalian Circuitry for Treatment of COVID-19 Cytokine Storms (2020) - Team Presentation [En...**Title:** No title **Abstract:** No abstract [Wiki](https://2020.igem.org/Team:MIT) | [Project Promotion](https://video.igem.org/videos/watch/df52135b-d1cd-4803-96d1-9f775d098f50)https://static.igem.org/peertube/streaming-playlists/hls/b321916d-9247-45b7-9798-4f047c689ca7/c89cee38-f3ed-417c-8276-787baf206bc4-master.m3u8https://video.igem.org/videos/embed/o7Xg4i3UwYyBaTPxxyyKL4119901292020-10-31T20:23:08.525ZTherapeuticsNorthAmericaUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/43Vem3hMM1SuxqGTApzQ48https://video.igem.org/lazy-static/thumbnails/0ddbd4b2-38a9-43f7-9a0d-c665da9da038.jpgAthens: MORPHÆ (2020) - Team Presentation [English]**Title:** Morphae: An engineered biofilm for the production of a novel structurally coloured material **Abstract:** Colours in nature can be the result either of chemical pigments or of the physical structure of surfaces. Certain bacterial strains exhibit structural colour when they form biofilms, a phenomenon caused by spatial geometries in the micron scale. In this iGEM project we utilize bacteria from the Flavobacterium genus that display structural colour naturally, to create a material that is coloured due to that property. In order for ‚ÄãFlavobacteriia to secrete a cellulose based extracellular matrix that retains this property, genes from the bcs operon of Komagataeibacter xylinus will be transferred. A biophysical mass-spring model of the cell will be developed to simulate the gliding motility mechanism based on the mechanical interactions between the cells, along with a simulation predicting the optical properties of a known structure. A kinetic modeling for the cellulose biosynthesis will also be implemented to better predict the final structure of the biomaterial. [Wiki](https://2020.igem.org/Team:Athens) | [Project Promotion](https://video.igem.org/videos/watch/f0df5dfe-605b-49c2-adf0-829c295e7643)https://static.igem.org/peertube/streaming-playlists/hls/18b3b52d-e508-44b5-a6ce-cb0600b7a30d/8b28f733-51db-4f21-9e97-f8a60e23933e-master.m3u8https://video.igem.org/videos/embed/43Vem3hMM1SuxqGTApzQ4897601162020-10-31T20:31:54.317ZManufacturingEuropeGreeceYES2020 Team PresentationsNOhttps://video.igem.org/w/8toW1yuDTnHMeujJbKsqfFhttps://video.igem.org/lazy-static/thumbnails/b725edce-3349-4180-ae95-875481e5e0a4.jpgXMU-China: Antea-Glyphosate (2020) - Team Presentation [English]**Title:** Antea-Glyphosate **Abstract:** Tea is deeply rooted in Chinese culture. For a long period, a large amount of glyphosate has been used as a herbicide, which raises a severe problem of pesticide residues in tea food. XMU-China aims at developing an efficient glyphosate detection and degradation system. For the detection system, glyphosate is degraded by several enzymes and then transferred into a measurable fluorescence signal caused by the NADPH; and the degradation system plans to disintegrate glyphosate to be AMPA to minimize the toxicity. Two suicide switches controlled by different inducers are also projected. It is hoped that this project could provide new ideas for the detection and degradation of pesticide residues. Taking care of the earth by tiny bacteria, we here promise a better future of tea. [Wiki](https://2020.igem.org/Team:XMU-China) | [Project Promotion](https://video.igem.org/videos/watch/02f6b705-eeb3-41db-ae7b-67e20cdc6497)https://static.igem.org/peertube/streaming-playlists/hls/3c832f2b-f812-4d30-82e9-e9ef107f8e33/6d8027bd-19ee-4285-b138-1f2f955de539-master.m3u8https://video.igem.org/videos/embed/8toW1yuDTnHMeujJbKsqfF1189018312020-10-31T20:45:41.782ZFood&NutritionAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/fw6kXDqFyR14WudBF4QzCKhttps://video.igem.org/lazy-static/thumbnails/f8f043e4-4408-4f09-a44d-bbb5f39e1124.jpgConcordia-Montreal: AstroBio 2020 & AstroYeast 2021 (2020) - Team Presentation [English]**Title:** AstroBio, open-source database for gene expression in microgravity & AstroYeast, resistant strains to microgravity-induced stress **Abstract:** Advances in synthetic biology, including cellular agriculture, enable the sustainable production of food on Earth. However, in-space biomanufacturing, for which maintaining cultures in bioreactors for extended periods is essential, has proved challenging. Microgravity induces global changes in gene expression profiles, triggering stress responses in cells. For example, Saccharomyces cerevisiae exhibits stress responses characterized by aberrant cell polarity, budding, and separation, which affects cell growth and productivity in space. There is also a lack of bioinformatics tools for microgravity researchers. To fill this gap, we developed AstroBio, an open-source database compiling literature findings on microgravity-induced gene expression changes in different model organisms. The database informs our development of AstroYeast, yeast strains that are resistant to microgravity-induced stress. This will be done in a high-throughput manner either by strain adaptive evolution, or genome-wide overexpression and knockdown screens. AstroYeasts can be used to sustainably and renewably produce nutrients in space under microgravity conditions. [Wiki](https://2020.igem.org/Team:Concordia-Montreal) | [Project Promotion](https://video.igem.org/videos/watch/55dc25fd-5817-4957-9f9b-dd1fd1cda6f7)https://static.igem.org/peertube/streaming-playlists/hls/75938c3b-03dd-4e11-9dac-2156a70620c7/8cca111a-1f16-4a06-98a0-80566f305dfb-master.m3u8https://video.igem.org/videos/embed/fw6kXDqFyR14WudBF4QzCK7040682020-10-31T21:07:07.764ZCanadaSoftwareNorthAmericaYES2020 Team PresentationsNOhttps://video.igem.org/w/opTd7rDnBrXcoEX8zPUai2https://video.igem.org/lazy-static/thumbnails/0224b239-1441-4eca-8a3b-2ea09ef55c14.jpgNYU_Abu_Dhabi: Fungal Diagnostics (2020) - Team Presentation [English]**Title:** Fungal Diagnostics **Abstract:** NYUAD iGEM is developing a rapid, point-of-care, field fungal diagnostic device. Since the mid-1900s, a flesh-eating fungal disease, chytridiomycosis, has been condemning more amphibian species to extinction than any other pathogen ever recorded wiping out over 90 species and causing declines in at least 500. Similar fungal diseases have also been affecting other animals such as bats, disrupting their hibernation and leaving millions dead in their paths. Usage of diagnostics for managing spread has been limited due to the testing methods being latent, expensive, and non-portable. Following a rigorous approach at research and design, the first stage of the project involves prototyping DNA extraction methods such as bead beating and lysis buffers, reaction mediums such as microfluidics and paper-based biosensors, amplification methods such as RPA CRISPR-Cas12a and reporting mechanisms such as fluorescence and LFA, in addition to a database and API that can integrate with any existing surveillance system. [Wiki](https://2020.igem.org/Team:NYU_Abu_Dhabi) | [Project Promotion](https://video.igem.org/videos/watch/140b455b-2ab4-4a63-b1a7-2a5d98f31084)https://static.igem.org/peertube/streaming-playlists/hls/b57eb73d-6f9d-4401-a17b-81888a9edd0f/caf1a6b7-9d94-46af-979f-b9239e63ca67-master.m3u8https://video.igem.org/videos/embed/opTd7rDnBrXcoEX8zPUai210850512020-10-31T21:14:35.792ZAsiaUnitedArabEmiratesDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/gBbwnHUwfcWM3VTogPto6bhttps://video.igem.org/lazy-static/thumbnails/c9a1f1c9-33cc-4630-a214-cbadfd066e9b.jpgUCAS-China: SHEEP (2020) - Team Presentation [English]**Title:** Stomach Homeostasis Establishment for Eluding the Plethora of H. pylori (SHEEP) **Abstract:** On asteroid B612, the little prince was busy pulling up shoots of the baobabs. Because once they had occasionally grown up, their roots could split the entire asteroid into pieces. Fortunately, B612 eventually gets a sheep that eats up the soaring baobab shoots without uprooting them. In this way, the little prince, baobab trees and sheep form a stable ecological balance. This story presents our new ideas on the treatment of H. pylori related diseases. H. pylori has been symbiotic with humans in the stomach for more than 60,000 years. Either its plethora or disappearance inflicts various diseases on human bodies. Complete elimination recommended by current treatment is not satisfying. Thus we proposed 'SHEEP' therapy, which introduced engineered L. acidophilus into the stomach to realize the balance of microecology. Aiming for personalized treatment, we obtain data from capsule robots' stomach sampling and photographing. The ternary-balanced-relation module is simulated as well [Wiki](https://2020.igem.org/Team:UCAS-China) | [Project Promotion](https://video.igem.org/videos/watch/ae11d868-5176-4211-ab63-c24ca2558825)https://static.igem.org/peertube/streaming-playlists/hls/7e6298e9-483c-45f0-88b6-aa2b00b22ccc/a4132725-76e8-4cc1-a206-bba0aa6f2d3b-master.m3u8https://video.igem.org/videos/embed/gBbwnHUwfcWM3VTogPto6b11380322020-10-31T22:54:57.437ZAsiaTherapeuticsChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/jAVaWM8try1ALkhiZ5UnDohttps://video.igem.org/lazy-static/thumbnails/4d8fa63e-7c2c-4cfd-9601-2ad8b400c3ce.jpgNFLS: Trash to Treasure! (2020) - Team Presentation [English]**Title:** A System for Degrading Waste Cellulose and Generating Electricity **Abstract:** Things made from cellulose can be seen everywhere in our life, such as paper and straw. Although some methods for recycling used paper have reached good efficiency, there is still large amounts of waste paper that cannot reach the standard of being recycled and have no chance to be put into a second use together with many materials composed of cellulose. Some of those cellulose materials can only be buried or burnt, which creates pollution for the environment. To deal with those materials, we come up with an idea of using genetically engineered E.colis to transform cellulose into glucose with the help of enzymes, including endoglucanases(cex), exoglucanases(cen), and Œ≤-glucosidases, and the E.colis generate electricity in Microbial Fuel Cells. We hope to imply this synthetic biological method to deal with waste cellulose and more environmental issues. [Wiki](https://2020.igem.org/Team:NFLS) | [Project Promotion](https://video.igem.org/videos/watch/c5d4f13a-1467-4f82-aad3-2231a4210a4c)https://static.igem.org/peertube/streaming-playlists/hls/96a48d58-a4d9-4215-88ed-d431fc5956ac/18caec92-29a1-4c3f-9b47-9f5ec7b7d80f-master.m3u8https://video.igem.org/videos/embed/jAVaWM8try1ALkhiZ5UnDo10930302020-10-31T23:07:31.670ZHighSchoolChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/p5ufR7hyq79dbLSW2siAX1https://video.igem.org/lazy-static/thumbnails/59ed830b-ea1a-4ffd-9351-781f79984e3b.jpgParis_Bettencourt: SynDerma (2020) - Team Presentation [English]**Title:** SynDerma : a foundational advance toward synthetic dermatology **Abstract:** In SynDerma we envisioned therapeutics being administered by engineered microbes integrated into the skin microbiome. First, to understand the perturbaility of the skin microbiome by individual habits such as hygiene, social interaction and exercise, which are all affected by this current unprecedented context of COVID-19 pandemia, we developed a community science project called Quaranskin. In Quaranskin we developed an at-home sampling kit, protocol and survey, where participants swabbed four body sites for metagenomic analysis. We correlated the diversity and composition of these collected microbiome data to behaviours noted in the surveys to uncover any trends. In parallel, we chose the skin commensal microbe Staphylococcus epidermidis to be a chassis for our future vision of microbial therapeutics enabled by synthetic biology. In projects EpiFlex, EpiGlow, and EpiGrow, we built a MoClo kit, expressed fluorescent proteins as a proof of concept, and optimised growth conditions, respectively. [Wiki](https://2020.igem.org/Team:Paris_Bettencourt) | [Project Promotion](https://video.igem.org/videos/watch/ea51a2eb-615e-4d24-a620-2637887f07b5)https://static.igem.org/peertube/streaming-playlists/hls/bae293df-34c4-4d4a-beb3-ce7ddd114fa6/012658a7-b12a-417f-b3bc-5f4062cb7701-master.m3u8https://video.igem.org/videos/embed/p5ufR7hyq79dbLSW2siAX111140362020-10-31T23:17:27.281ZEuropeFranceFoundationalAdvanceYES2020 Team PresentationsNOhttps://video.igem.org/w/dPJqN9FAftb6aBeHPHDgQvhttps://video.igem.org/lazy-static/thumbnails/f82c95ae-65ab-4d55-a446-fcec27f96b19.jpgUGent_Belgium: Vsycle: providing ecological rain on demand (2020) - Team Presentation [English]**Title:** Vsycle: providing ecological rain on demand **Abstract:** Drought, water scarcity as well as floods are becoming a worldwide problem. Influencing the weather to control rainfall by the use of cloud seeding, a technique where certain particles are dispersed in clouds, could be a remedy. Cloud seeding is already executed, but is mainly done by using the toxic silver iodide. With team Vsycle, we designed an alternative cloud seeding agent that is biological, nontoxic and biodegradable. For this, we used the ice nucleation proteins (INPs) from Pseudomonas syringae, which facilitates ice formation. As the formation of ice crystals in clouds plays an essential role in many environments, this protein could be very interesting to use as a potential alternative to silver iodide in cloud seeding. To anticipate on legislation issues regarding GMO's, we designed INP producing E. coli cells that can be induced to leak their cellular contents according to the bacterial ghost principle. [Wiki](https://2020.igem.org/Team:UGent_Belgium) | [Project Promotion](https://video.igem.org/videos/watch/d4be54fc-7dc2-4076-bc9a-403485028775)https://static.igem.org/peertube/streaming-playlists/hls/67d7c49b-30e0-45a6-8cca-cee4d653d191/535ae842-9e68-4e31-92c6-376df4d51494-master.m3u8https://video.igem.org/videos/embed/dPJqN9FAftb6aBeHPHDgQv11470852020-10-31T23:32:37.656ZEuropeEnvironmentBelgiumYES2020 Team PresentationsNOhttps://video.igem.org/w/qPWKx9WGt62bcg8h6Zpce8https://video.igem.org/lazy-static/thumbnails/f1940244-4216-4a29-828a-e290a5e3e381.jpgBGU-Israel: WIPEOUT (2020) - Team Presentation [English]**Title:** WIPEOUT - Wipes out wet wipes of the environment! **Abstract:** Over the last two decades, the use of wet wipes has become commonplace across the globe. Disposal of wet wipes through the toilet and their accumulation in the sewer systems cause extensive damage; In Israel alone, repairing the wet wipes damage to sewer systems is estimated by 3,360,000$ per year! 'Wipeout' presents a leading and innovative solution to this unsolved, global problem of biodegradation of domestic contamination of sewage and water systems. We aim to utilize biological methods, including genetically engineering the sewer systems' bacterial populations, using bacterial surface- display systems. Our final goal is to solve the clogging problems caused by an accumulation of cellulose fibered wipes in sewer systems and prevent a generation of 'fatbergs', which are thousands of wipes stacked together with other flushed solids and fats. By finding a solution to this problem we may be able to prevent both ecological and economic damages. [Wiki](https://2020.igem.org/Team:BGU-Israel) | [Project Promotion](https://video.igem.org/videos/watch/70a9a146-0e81-4907-8b6c-138cbcd80499)https://static.igem.org/peertube/streaming-playlists/hls/c90d06bc-4c6e-49ef-95c2-9732c4091c4d/5c33eb6c-b76e-40c7-b3cb-71dcea901a9b-master.m3u8https://video.igem.org/videos/embed/qPWKx9WGt62bcg8h6Zpce89350302020-10-31T23:46:50.648ZEnvironmentAsiaIsraelYES2020 Team PresentationsNOhttps://video.igem.org/w/e8vVr3Vi8tMcWD5HMLHiVuhttps://video.igem.org/lazy-static/thumbnails/dbfd5b8e-db2d-42df-acdb-28a34c0676b1.jpgKUAS_Korea: Thermopatch : What's your body temperature now? (2020) - Team Presentation [English]**Title:** Thermopatch : What's your body temperature now? **Abstract:** One of the key factors to South Korea's success in controlling COVID-19 is early detection. Aside from aggressive COVID-19 testing, South Korea also deployed temperature checks at entries of every indoor public facilities for screening purposes. However, the current screening methods such as contactless thermometers and infrared cameras are not efficient because of the high costs of resources needed for setting up screening booths and its failure to monitor temperature continuously. Our 'Thermopatch' is a device that complements these limitations. In the process, we utilized light-up RNA aptamer('Catalytic Hairpin Assembly(CHA)' method specifically) and thermosensing RNA. We ultimately hope our 'Thermopatch' can help people get through these difficult times. [Wiki](https://2020.igem.org/Team:KUAS_Korea) | [Project Promotion](https://video.igem.org/videos/watch/65bac94c-3c82-44b4-890f-cfe8d8977d7c)https://static.igem.org/peertube/streaming-playlists/hls/6a5372d6-ba65-42fd-8f00-2d0d234dd70a/ea0fa4de-95f7-4f03-a577-a33ea802183f-master.m3u8https://video.igem.org/videos/embed/e8vVr3Vi8tMcWD5HMLHiVu11590402020-10-31T23:55:27.334ZAsiaOpenKoreaRepublicOfYES2020 Team PresentationsNOhttps://video.igem.org/w/24F3qw4GA95d42Bpdv4yLyhttps://video.igem.org/lazy-static/thumbnails/f99e01f1-144c-472f-ba5e-411ef51482ee.jpgGA_State_SW_Jiaotong: SynBio-dinium (2020) - Team Presentation [English]**Title:** Syn-biodinium **Abstract:** Coral bleaching, the loss of necessary algal symbionts for the survival of cnidarian reef organisms, is a disastrous environmental issue that is mainly caused by anthropogenic global warming. Genetically modifying corals' symbiotic microalgae, Symbiodinium, to better withstand heat stress may combat coral bleaching. We have attempted several transformations, creatively designed an algae house, and built a temperature-ecological amplitude model based on the Shelford's Law of Tolerance to find the best conditions for culturing Symbiodinium. In addition, we have successfully designed a recombinant plasmid by inserting a GUS reporter gene and the most appropriate modified heat resistant gene, heat shock factor, into a dinoflagellate-optimized expression DinoIII plasmid. We will perform a biolistics gene gun-mediated transformation. Because the commercial gene gun is so expensive, we will use 2018 iGEM team Worcester's design to build our own gene gun. Hopefully, the corals will uptake the modified algae, increasing their resistance to bleaching. [Wiki](https://2020.igem.org/Team:GA_State_SW_Jiaotong) | [Project Promotion](https://video.igem.org/videos/watch/fa637515-3a73-4e28-9e73-2a7033e9c1be)https://static.igem.org/peertube/streaming-playlists/hls/089c6e29-36c6-4604-8ddd-9135a70d19a0/a6d69dc7-4b9b-4daa-b751-b02780575321-master.m3u8https://video.igem.org/videos/embed/24F3qw4GA95d42Bpdv4yLy11040732020-11-01T00:05:28.001ZNorthAmericaEnvironmentUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/m56h8s3EjzteFWUsgDFiqhhttps://video.igem.org/lazy-static/thumbnails/6a6580c8-1357-4d24-848e-cdbb5dd180bf.jpgBNU-China: Automatic Barcode Creator (ABC) (2020) - Team Presentation [English]**Title:** Automatic Barcode Creator (ABC) **Abstract:** Tracing the lineage of cells is essential in answering diverse and fundamental questions in biology.¬†In recent years, the method combing CRISPR/Cas9 and barcode, a DNA sequence as genetic marker, has attracted extensive attention in lineage tracing. However, the diversity of barcodes is limited and the constitutively expressed Cas9 consumes barcodes quickly. These make barcodes infeasible for the tracking purpose after several generations. We propose to track more generations by two ways. First, we build an inducible expression module of Cas9 in association with cell division to label each cell automatically without wasting barcodes. Second, we use homing guide RNA (hgRNA) to replace the small guide RNA (sgRNA) so that the diversity of barcodes can be increased greatly. In order to make the barcode sequence read at RNA level, we design a double promoter module, so that we can obtain the lineage information together with transcriptomic information. [Wiki](https://2020.igem.org/Team:BNU-China) | [Project Promotion](https://video.igem.org/videos/watch/db7eb70d-983c-40f5-833d-7c51e9f65799)https://static.igem.org/peertube/streaming-playlists/hls/a2890042-301a-4a16-982f-a47cfdce952c/34388de7-4c71-4df7-9351-c34e2720e221-master.m3u8https://video.igem.org/videos/embed/m56h8s3EjzteFWUsgDFiqh10470802020-11-01T00:16:51.254ZFoundationalAdvanceAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/7FJ7ME4Jsk48SZptdhFF7ahttps://video.igem.org/lazy-static/thumbnails/aa839181-56ea-4c5d-adbf-e88f22768021.jpgBotchan_Lab_Tokyo: Nico-frienfly (2020) - Team Presentation [English]**Title:** nico-friendly **Abstract:** About 4.5 trillion cigarette butts are deposited somewhere in the environment every year. Out of the waste collected by coastal cleanups every year, cigarette butts comprise the largest percentage of this, which account for approximately 19 - 38 % of total waste products by count. Nicotine from cigarette butts negatively affect marine environment. Pseudomonas putida S16 can metabolite nicotine. We are planning to introduce this pathway into Escherichia coli. We expect that Escherichia coli gets ability to degrade nicotine. Through the pathway, nicotine is changed to 2,5-dihydroxypyridine. 2,5-dihydroxypyridine is a precursor of 5-aminolevulinic acid which is the main material of fertilizer and pharmaceuticals. We hope that our project helps stop littering cigarettes. And we hope that living things are more safely and peacefully. [Wiki](https://2020.igem.org/Team:Botchan_Lab_Tokyo) | [Project Promotion](https://video.igem.org/videos/watch/3dfb535c-34b6-4e5b-bafe-46a954ba47df)https://static.igem.org/peertube/streaming-playlists/hls/3622cb66-0cb5-45ca-9e62-f1fe30afddb9/2c30cb26-fb7f-4b96-aa97-4654ae60f778-master.m3u8https://video.igem.org/videos/embed/7FJ7ME4Jsk48SZptdhFF7a9840632020-11-01T00:51:31.881ZAsiaEnvironmentJapanYES2020 Team PresentationsNOhttps://video.igem.org/w/3XdLScGAwK9zn3ULcB7DQYhttps://video.igem.org/lazy-static/thumbnails/de42aa0d-72e9-45f6-a824-86ad7e7bc830.jpgTU_Darmstadt: B-TOX (2020) - Team Presentation [English]**Title:** B-TOX: reduction of waste water toxicity using a B. subtilis biofilm **Abstract:** Water is undoubtedly one of our most precious goods and basis of life. But somehow, we humans have managed to neglect and pollute this meaningful resource. Nonetheless, most of us aren't even aware of the consequences. In this year's iGEM project, we have made it our mission to make a difference in wastewater treatment and develop an innovative future for pharmaceutical degradation: B-TOX, a modular biofilm able to degrade a variety of detrimental micropollutants like the anti-inflammatory drug diclofenac. By devising an enhanced and modular B. subtilis biofilm, we can render pharmaceutical residues less toxic, utilizing the degrading properties of enzymes. We immobilize our degradation enzymes in the extracellular biofilm matrix, thereby providing a self-sustaining system without the necessity downstream processing. A safe implementation and the prevention of bacteria release is given through our kill switch system, connecting the survival of our bacteria to the presence of determined molecules. [Wiki](https://2020.igem.org/Team:TU_Darmstadt) | [Project Promotion](https://video.igem.org/videos/watch/c98c46b1-8377-4a8c-a0ac-5f4caa04c9d6)https://static.igem.org/peertube/streaming-playlists/hls/17e80e80-5bdf-4aef-9b0a-09e978e0924c/eaed4150-0879-41f0-858b-c44551298519-master.m3u8https://video.igem.org/videos/embed/3XdLScGAwK9zn3ULcB7DQY119901542020-11-01T01:44:30.279ZEuropeEnvironmentGermanyYES2020 Team PresentationsNOhttps://video.igem.org/w/of5p6gNwsDHiGcN3jokB7Khttps://video.igem.org/lazy-static/thumbnails/96cffad5-d7f5-44e1-a5a2-96c89e4f9de1.jpgPurdue: cArgo: A COVID-19 Microfluidic Rapid Diagnostic Device (2020) - Team Presentation [English]**Title:** Microfluidic Argonaute Mediated COVID-19 Point of Care Diagnostic Device. **Abstract:** The COVID-19 pandemic has strained global diagnostic capacities and highlighted the limitations of conventional lab-based assays, which can take between 1-14 days to receive conclusive results. Current on-site kits have false-negative rates as high as 33%. In an effort to provide accurate, non-invasive, affordable, and rapid Point of Care(POC) diagnostic tests for COVID-19 and other emerging pandemics, Purdue iGEM is developing cArgo: a COVID-19 Argonaute mediated microfluidic diagnostic device. cArgo extracts viral RNA from saliva for amplification and conversion into dsDNA. TtAgo that we will express and purify from e.coli then cleaves the dsDNA using COVID-19 DNA guides producing ssDNA fragments. These fragments hybridize to molecular beacons emitting a quantifiable fluorescent signal for conclusive result determination. Coupling the biologics with chip barcoding and app integration, we hope to revolutionize POC Diagnostics while making data more accessible for simultaneous detection and contact tracing. [Wiki](https://2020.igem.org/Team:Purdue) | [Project Promotion](https://video.igem.org/videos/watch/e0cf78dc-f2a7-4447-9fa1-215ab8db3456)https://static.igem.org/peertube/streaming-playlists/hls/b4202c7a-05df-41c5-a46c-26d82fb4498b/3f69ffbd-764b-421d-a1b1-e689ddc2ce06-master.m3u8https://video.igem.org/videos/embed/of5p6gNwsDHiGcN3jokB7K11660612020-11-01T01:56:17.218ZUnitedStatesNorthAmericaDiagnosticsYES2020 Team PresentationsNOhttps://video.igem.org/w/fzSAa3c7U21HNq6gTwMnSUhttps://video.igem.org/lazy-static/thumbnails/f02e3771-aac7-429e-aae9-480f818a3cf1.jpgUChicago: Optizyme (2020) - Team Presentation [English]**Title:** Optizyme: A Novel Open-Source Computational Modelling and Optimization Package for Design of Cell-Free Systems **Abstract:** Optizyme is an open source package in the computer language R that aims to streamline computational approaches to synthetic biology problems. Optizyme contains a suite of functions that allow for Michaelis-Menten model construction and visualization given only biological parameters. Most importantly, Optizyme allows for optimization of enzyme concentrations within cell-free systems through a gradient descent algorithm that accepts models built using Optizyme's capabilities, as well as any user constructed model that fulfills certain requirements detailed in the package documentation. Accuracy of the optimization algorithm is tested on the model described in 'A combined experimental and modelling approach for the Weimberg pathway optimisation' (Shen et al). Using their model, Optizyme identifies a higher performing optimum than the optimal ratio identified by Shen et al. We then apply the capabilities of Optizyme to optimize the design of a cell-free system we intend to construct next year that degrades polyethylene terephthalate into catechol. [Wiki](https://2020.igem.org/Team:UChicago) | [Project Promotion](https://video.igem.org/videos/watch/9501d3d0-246f-4576-88a9-e57d8443b999)https://static.igem.org/peertube/streaming-playlists/hls/761aa983-86f0-431f-9d47-2668ce357984/b0ba0f5a-466e-4012-a318-a6a43418efdf-master.m3u8https://video.igem.org/videos/embed/fzSAa3c7U21HNq6gTwMnSU10750332020-11-01T02:40:44.503ZNorthAmericaEnvironmentUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/8PiGDaL4BJaS7GefLvrU9thttps://video.igem.org/lazy-static/thumbnails/9c28a062-1c4f-46e6-9a27-3b6397e38cd0.jpgWarwick: An early detection system for bowel cancer based on the presence of col... (2020) - Team...**Title:** An early detection system for bowel cancer based on the presence of colibactin derivative **Abstract:** Colon cancer worldwide affects over 1.80 million people with approximately 862,000 deaths each year. Recent scientific literature highlights a correlation between colon cancer and the presence of colibactin in patients' bowels, produced by Escherichia coli found in the colon of 20% of people. Therefore, to aid early detection we will develop a better diagnostic tool for the detection of colon cancer reliant upon modifying a DNA-binding protein. By engineering the transcriptional repressor MmfR of the TetR family, the binding of a colibactin derivative will prevent the binding of our new protein to DNA. The ligand-binding pocket of MmfR will be modified in-silico to ensure it accommodates a colibactin derivative - N-myristoyl-D-asparagine - instead of its native ligand. Specific amino acids mutated within the MmfR protein will be identified. Finally, the engineered protein will be overproduced and isolated. We expect resulting engineered proteins to be accurate and precise biosensors for colibactin. [Wiki](https://2020.igem.org/Team:Warwick) | [Project Promotion](https://video.igem.org/videos/watch/cb668dd1-5872-4476-a16b-3fbefd1ee7c8)https://static.igem.org/peertube/streaming-playlists/hls/3f4ad614-e54b-4f06-8d6e-85006a006173/9297e837-d57b-44f4-a285-33f4166f69f8-master.m3u8https://video.igem.org/videos/embed/8PiGDaL4BJaS7GefLvrU9t11900342020-11-01T02:53:12.703ZDiagnosticsEuropeUnitedKingdomYES2020 Team PresentationsNOhttps://video.igem.org/w/vLn3GFujto1nX5Ts36kLeqhttps://video.igem.org/lazy-static/thumbnails/68ad9de6-2ce3-438c-9d49-5565e6d0dd42.jpgRUM-UPRM: MER-NITE: To the Rescue (2020) - Team Presentation [English]**Title:** Mer-Nite to the Rescue: A Solution to Decrease Contamination in Vieques **Abstract:** For over six decades, Vieques, an island-municipality of Puerto Rico, was used as a military training site. An array of contamination was left behind due to the materials and explosives used, devastating the biodiversity, and increasing health risks for the Viequenses. Initiatives to clean the waters and soil of Vieques exist; however, it has been a costly and lengthy process. iGEM RUM-UPRM proposes Mer-Nite, a solution to decrease the contamination in Vieques due to the military practices. Phase 1 of the project consisted of designing a genetic system to absorb and bioremediate mercury through the expression of the mer operon, combined with a second circuit that will be activated upon the presence of RDX and degrade the contaminant through the expression of the xplA and xplB genes. Mer-Nite represents an alternative solution to decrease the contamination, conserve biodiversity, and improve the quality of life in Vieques. [Wiki](https://2020.igem.org/Team:RUM-UPRM) | [Project Promotion](https://video.igem.org/videos/watch/6aa374a3-c6a4-4e3e-81b9-c839d2e26941)https://static.igem.org/peertube/streaming-playlists/hls/f10ab7a9-ad9f-412d-88ba-97fa9a4c6ac2/c5071238-0199-4e52-906c-e4f21ecc5b5d-master.m3u8https://video.igem.org/videos/embed/vLn3GFujto1nX5Ts36kLeq9260652020-11-01T03:05:41.079ZLatinAmericaUnitedStatesEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/3a2TrAYsZ7ku6RXhHH2V7Thttps://video.igem.org/lazy-static/thumbnails/e0cce6f0-158e-4396-ae92-72d246208d16.jpgAFCM-Egypt: Neo-epitope discovery for DNA-launched RNA replicons: paving the way... (2020) - Team...**Title:** Neo-epitope discovery for DNA-launched RNA replicons: paving the way to efficient breast cancer vaccination **Abstract:** Triple negative breast cancer is one of the most aggressive breast cancer subtypes. It is characterized by a generally poor prognosis and strong resistance to traditional therapies. This season, we focused on designing a novel immunotherapeutic approach involving DNA-launched RNA Replicons (DREP). We utilized our hotspot detection tool, 'Custommune', to generate a list of candidate neo-epitopes from clinically prioritized neoantigens thus reducing the need for extensive sequencing approaches. After in silico validation of our generated neo-epitope predictions, we devised a DREP-based platform to effectively deliver our multi-neo-epitope vaccine. The platform utilizes the inherent self-amplification ability of RNA-replicons to ensure enhanced neo-antigen uptake and presentation leading to the mounting of efficient cellular and humoral immune responses against TNBC. Embedded with optimized subgenomic regulation and linker-peptides alongside glycine-alanine repeats (GAr), a miRNA-based immune evasion mechanism and an OFF-switch, our platform is predicted to be highly safe and efficient through experimentally-driven mathematical simulations. [Wiki](https://2020.igem.org/Team:AFCM-Egypt) | [Project Promotion](https://video.igem.org/videos/watch/2e5cadac-c18d-4a54-a998-011c9754d681)https://static.igem.org/peertube/streaming-playlists/hls/11752254-cdab-4145-8abc-729de3f6a2db/794c5f9f-1b1c-46be-a605-5d7ef27d1838-master.m3u8https://video.igem.org/videos/embed/3a2TrAYsZ7ku6RXhHH2V7T111201502020-11-01T03:15:10.168ZAfricaEgyptTherapeuticsYES2020 Team PresentationsNOhttps://video.igem.org/w/vze5Da326GUXTz8NdPAK98https://video.igem.org/lazy-static/thumbnails/3a636c32-8b8c-4755-99c3-430609a00d6a.jpgSYSU-CHINA: Semi-rational evolution of ADAR1 inhibitor (2020) - Team Presentation [English]**Title:** Semi-rational evolution of ADAR1 inhibitors **Abstract:** RNA binding proteins(RBPs) play an essential role in tumors and neurodegenerative diseases, while most of them lack of effective inhibitors. Since directed evolution has shown its high efficiency, this year we provided a sample combining rational design and directed evolution to obtain dsRNA inhibitors of RBPs and took ADAR1, a dsRNA adenosine deaminase, as an example. In our project, an algorithm-guided model was trained from natural substrates of ADAR1 and used to established a candidate dsRNA library. Those candidates were connected to a self-splicing stem-loop sequence and transferred into HeLa cells with toxic genes regulated by ADAR1 and Tet-on system, which only survived when endogenous ADAR1 was inhibited by transferred dsRNAs. Efficient substrates were extracted and used to train the model above for the next round. Through the continuous cycle of this screening process, we could obtain high-efficiency inhibitors of ADAR1 efficiently, and extend this model to other RBPs. [Wiki](https://2020.igem.org/Team:SYSU-CHINA) | [Project Promotion](https://video.igem.org/videos/watch/f787e197-1e36-4aff-84b1-fd9de271872c)https://static.igem.org/peertube/streaming-playlists/hls/ef7ca05b-44a5-437f-8b08-944d6fbd8da3/9e0ea8c6-a365-4612-aa46-70d5ef833f38-master.m3u8https://video.igem.org/videos/embed/vze5Da326GUXTz8NdPAK9811470492020-11-01T03:25:43.239ZFoundationalAdvanceAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/wN7mMX5PcAseMXqRyoq9fYhttps://video.igem.org/lazy-static/thumbnails/54b942f0-3f42-4e3e-8c63-9eaafc8db513.jpgManchester: HippoSol (2020) - Team Presentation [English]**Title:** HippoSol - The sunscreen for the future **Abstract:** Regular unprotected exposure to the sun can result in multiple skin disorders, including skin cancer. Skin cancer is the fifth most common type of cancer in the UK, yet 60% of cases are preventable. Sunscreens are therefore important to use, but when used while swimming in the sea, conventional sunscreen ingredients cause oxidative stress on coral reefs, resulting in serious coral bleaching. Our team aims to produce a novel non-toxic, bactericidal, mammal-derived broad-spectrum UV filter to address this problem. Our target compound polymerises naturally into an unreactive molecule minimising environmental effects. Our goal is to produce the novel sunscreen in bacteria, as a reef-safe alternative to commercially available sunscreens. We use innovative retrosynthesis methods to design a biosynthetic pathway to our target compound and utilise techniques like entrepreneurship, stakeholder engagement, and media analysis to ensure that our product meets an urgent real-world need in a safe and responsible way. [Wiki](https://2020.igem.org/Team:Manchester) | [Project Promotion](https://video.igem.org/videos/watch/af92cb52-afbf-450e-8fd9-d96cf428642e)https://static.igem.org/peertube/streaming-playlists/hls/f9624ab1-dbd1-4b6b-89ee-5c499e1ceee4/d7d37188-b830-4d9f-b8e7-4cbea61c1aff-master.m3u8https://video.igem.org/videos/embed/wN7mMX5PcAseMXqRyoq9fY87901442020-11-01T03:41:16.905ZEnvironmentEuropeUnitedKingdomYES2020 Team PresentationsNOhttps://video.igem.org/w/u9yWYK1R72rKcwRJFY9osnhttps://video.igem.org/lazy-static/thumbnails/9c38f4d5-f0a9-40ca-a6a6-172bf39e571d.jpgSJTU-BioX-Shanghai: LUCAS - Locational Unique Cas9 (2020) - Team Presentation [English]**Title:** LUCAS: Locational Unique Cas9 **Abstract:** The off-target problem of CRISPR technology is the most troublesome factor for its in vivo operations. Regarding this, our project conducted optimization methods to obtain a CRISPR-Cas9 system for specific target with high accuracy. To achieve this goal, we adopted directed evolution and rational design methods. We proposed a pipeline integrating machine learning and Markov process in off-target prediction. Meanwhile, molecular dynamics and graph theory were also applied to guide and interpret directed evolution and rational design. In experiment, the transcriptional activation and inhibition circuits were built to reflect the on/off-target rate, serving as indicators for screening and reporting process. Finally, we hope that our method can be a guidance for further application. [Wiki](https://2020.igem.org/Team:SJTU-BioX-Shanghai) | [Project Promotion](https://video.igem.org/videos/watch/1dd4520f-9bef-4760-ad3f-ed9a1f901893)https://static.igem.org/peertube/streaming-playlists/hls/e3f22333-9184-4ec0-860d-857b0a148831/3fe890a4-6861-4a49-bde0-37a538b98dd4-master.m3u8https://video.igem.org/videos/embed/u9yWYK1R72rKcwRJFY9osn11820852020-11-01T03:51:18.094ZChinaAsiaFoundationalAdvanceYES2020 Team PresentationsNOhttps://video.igem.org/w/iw6wddNicq3dk9pKwTbs32https://video.igem.org/lazy-static/thumbnails/81178aee-7ebc-4c49-a4bf-af9802a2f641.jpgAshesiGhana: The CoastBusters: Saving the Coast One Bottle at a Time (2020) - Team Presentation [...**Title:** The Coastbusters: Saving the Coast One bottle at the time **Abstract:** Did you know that each year, more than 8 million tons of plastic waste are dumped into the ocean, harming the marine ecosystem? In response the sea seems to be fighting back through coastal erosion, which is threatening human settlements across the globe. This project aims to design a living sea defense system (bio-concrete tetrapods) by incorporating organisms capable of carrying out plastics and bio-cementation bioremediation. Several plasmids will be design to breakdown the plastic and carry out the bio-cementation process, and some plasmids will have the genes under a constitutive promoter; others would have it under a pH-responsive promoter to maintain the optimal pH for the ecosystem while others would be under a light-inducible promoter, which will be activated in the presence of increased light due to occurring cracks in the tetrapod. We are aiming to identify the conditions necessary to initiate the ecosystem and for making it self-balancing. [Wiki](https://2020.igem.org/Team:AshesiGhana) | [Project Promotion](https://video.igem.org/videos/watch/4e1c8b4a-a4ee-499a-9be5-ccbf4694967c)https://static.igem.org/peertube/streaming-playlists/hls/8ddf129b-1df3-4612-85c7-0c643c4a52dd/05842ebc-1bac-46b6-ba5b-967690c7e95c-master.m3u8https://video.igem.org/videos/embed/iw6wddNicq3dk9pKwTbs3280801542020-11-01T04:02:11.918ZAfricaEnvironmentGhanaYES2020 Team PresentationsNOhttps://video.igem.org/w/jx5Ry1ddd6Q3UcHyUmiUU5https://video.igem.org/lazy-static/thumbnails/629b6a16-7373-477b-98d7-a8abf58ee24f.jpgSCU-China: RNAlphABA (2020) - Team Presentation [English]**Title:** RNAlphABA **Abstract:** Late spring cold (LSC) is a common climatic phenomenon in many areas of the world, which refers to the sudden appearance of continuous low temperature after the weather warms up in middle of spring. Every year, LSC causes huge agricultural and economic losses through freezing the bud of crops. Currently, spraying abscisic acid (ABA) is the main way to deal with LSC. However, chemically synthesized ABA usually contains by-products and toxic waste, while purified ABA is expensive. Therefore, we hope to give a new application to Saccharomyces cerevisiae, so that it can synthesize ABA before the onset of LSC, and develop a software to predict degree of LSC. In addition, in order to solve the deficiency of eukaryotes' monocistronic gene expression system in the field of exogenous product biosynthesis, we develop a new application of the CRISPR-Csy4 system in the construction of eukaryotic multicistronic exogenous gene expression system. [Wiki](https://2020.igem.org/Team:SCU-China) | [Project Promotion](https://video.igem.org/videos/watch/03dff86b-8629-4616-9bf2-a131c782b22a)https://static.igem.org/peertube/streaming-playlists/hls/961b8b5a-1df8-404a-9776-cac12c621f04/aa708609-97ec-406b-a9f9-7f0aba63ce7a-master.m3u8https://video.igem.org/videos/embed/jx5Ry1ddd6Q3UcHyUmiUU510950202020-11-01T04:20:48.508ZAsiaNewApplicationChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/dNxxfSkKVSaeekZVNytLt7https://video.igem.org/lazy-static/thumbnails/d99d7980-779d-4f7a-afd5-2aa15f278bbe.jpgGO_Paris-Saclay: HuGenesS (2020) - Team Presentation [English]**Title:** HuGenesS: a project on gene entanglement **Abstract:** HuGenesS is based on the concept of overlapping genes, where a DNA stretch encodes two genes, depending on the reading frame. The genes are interlaced, as if in a loving hug! While such genetic arrangements exist in nature, this phenomenon could not be easily harnessed for synthetic biology¬Ö until the CAMEOS software was developed by Harris Wang's Team. We used it to generate several entangled genes encoding reporter and antibiotic resistance proteins. We cloned the sequence encoding GFP and KNT. Since the cloned entangled genes lost functionality, we improved CAMEOS to generate sequences preserving conserved amino acids and to choose the best overlap. We have written comprehensive tutorials on utilizing CAMEOS. The improved software generated sequences that are currently tested by a research team optimizing lipid synthesis in yeast. Genetic entanglement has many potential applications from designing minimal genomes to developing improved, safer and more stable genetic constructs. Confined hugs! [Wiki](https://2020.igem.org/Team:GO_Paris-Saclay) | [Project Promotion](https://video.igem.org/videos/watch/86861753-9ece-4160-8480-ab4a8fbd7cb3)https://static.igem.org/peertube/streaming-playlists/hls/67ad505a-6199-43a3-b6b2-188a3985320c/4f7c1272-1bbf-4307-adbb-871369530401-master.m3u8https://video.igem.org/videos/embed/dNxxfSkKVSaeekZVNytLt79620812020-11-01T04:26:02.322ZFranceInformationProcessingEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/uBDo2vUb5cKp82miL7eWYthttps://video.igem.org/lazy-static/thumbnails/ee7688e1-1add-4733-ac85-62abe50f5a82.jpgECUST_China: DEtector (2020) - Team Presentation [English]**Title:** D-E-tector for SARS-CoV-2 **Abstract:** SARS-CoV-2 is highly transmissible and pathogenic. In addition to the nature of RNA virus with high mutation rate, antigenic drift is the main evolutionary mechanism for SARS-CoV-2. Its wide-spreading has currently resulted in the evolutionary variants different from the originate isolate. Therefore, to curb this pandemic, effective surveillance of circulating viruses is much more urgent. We developed a high throughput POCT platform for the SARS-CoV-2 detection with the help of DMF. A nanomachine called DNA Walker can amplify the region-specific sequence of the virus genome in the specimen. And then it will be read out by E-CRISPR, which can output an electric signal by a Cas9 nickase and corresponding electrode. We are targeting not only the detection of COVID-19 viruses with alarming dangerous mutations, but also differentiating other related viruses and pathogens. This is not only for managing today's pandemic, but also for the potential outbreaks of other coronaviruses. [Wiki](https://2020.igem.org/Team:ECUST_China) | [Project Promotion](https://video.igem.org/videos/watch/47ddb00f-1cdd-4afb-aea7-19828eb36916)https://static.igem.org/peertube/streaming-playlists/hls/e7b9f355-a8be-453f-81ba-c753c655c38b/95eaa983-d698-438b-ba31-78ff934c563d-master.m3u8https://video.igem.org/videos/embed/uBDo2vUb5cKp82miL7eWYt11420462020-11-01T04:39:06.484ZChinaAsiaNewApplicationYES2020 Team PresentationsNOhttps://video.igem.org/w/4FKUGTKQmCzMuqDKg1qDE6https://video.igem.org/lazy-static/thumbnails/993bf958-ad9c-40be-b3ff-b002e3d23736.jpgCSMU_Taiwan: miRNA.DOC (2020) - Team Presentation [English]**Title:** miRNA.doc - novel detection method for oral cancer **Abstract:** The mortality rate of oral cancer is ranked fifth out of all cancers in Taiwan. The most common way to diagnose the disease is visual examination. However, this method frequently results in false-negative outcomes. We aim to develop a simple and systematic approach to assist doctors in diagnosing and treating oral cancers in the early stage, ultimately decreasing the mortality rate of the disease. We chose the miRNAs present in the patient's saliva as our biomarker. When they bind to our designed toehold switches, the loop on the toehold unwinds and translates the enzyme, invertase, which can break down sucrose into glucose. The amount of glucose can be measured by a glucometer, and doctors can use the measured data to assist diagnosis of oral cancer. Our project not only helps doctors with the diagnosis but also increases patients' survival rate and their life quality. [Wiki](https://2020.igem.org/Team:CSMU_Taiwan) | [Project Promotion](https://video.igem.org/videos/watch/4b70f7ac-a852-48f4-82c9-7464b4cd1057)https://static.igem.org/peertube/streaming-playlists/hls/1dd87b93-0b43-4fda-ae6e-c39ef8384435/f88271ed-52a7-4701-857f-86c4befa7574-master.m3u8https://video.igem.org/videos/embed/4FKUGTKQmCzMuqDKg1qDE6112302382020-11-01T05:00:28.528ZDiagnosticsTaiwanAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/advVWZSzAGH19QF5WpUPE2https://video.igem.org/lazy-static/thumbnails/a13c2baa-80dc-4d1a-9c38-12e9af6de088.jpgSCU-WestChina: LK (2020) - Team Presentation [English]**Title:** Lung Knight- Recombinant protein carried by liposomes for Idiopathic Pulmonary Fibrosis **Abstract:** There are more than 3 million people worldwide suffering from pulmonary fibrosis. However, the price of the mainstream therapy whose curative effect and targeting ability is poor, is too high to afford for most patients. Based on this fact, we offer an entirely new treatment: TGF-beta II truncated receptor was fused with collagen-targeted peptides to construct recombinant protein drugs. The recombinant protein was embedded in liposomes to construct the molecular drug delivery system. The patients are given the drug into the lungs by inhaling it through an atomizer. We have proved this product is effective anti-fibrosis drug through three-stage experiments. This product has the following advantages: 1. Directly block the worsening signal and significantly slow down the process of pulmonary fibrosis. 2. Accurately target the lesions with little side effect 3. Accurate liposome delivery, which is gentle and efficient. 4. Makes it convenient for patients to get treatment by themselves. [Wiki](https://2020.igem.org/Team:SCU-WestChina) | [Project Promotion](https://video.igem.org/videos/watch/86d97141-3f8b-4f83-a17d-ea4b91c728a1)https://static.igem.org/peertube/streaming-playlists/hls/4aa19e47-f1ef-4b91-afcb-23984db61909/e3c03d5b-177c-4414-bf0a-3708faef0eaa-master.m3u8https://video.igem.org/videos/embed/advVWZSzAGH19QF5WpUPE211480272020-11-01T05:10:56.249ZTherapeuticsAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/2o8VWEtkLbeUzYYSWRphbrhttps://video.igem.org/lazy-static/thumbnails/4aed2b88-608e-4a21-bb6f-01123fd5f210.jpgHong_Kong_HKU: Beyond Unicellular: Recombinase circuits to develop monoculture p... (2020) - Team...**Title:** Beyond Unicellular: Recombinase circuits to develop monoculture phenotypic heterogeneity with precise ratiometric control **Abstract:** Some natural populations of unicellular organisms exhibit uniquely high levels of cooperativity and labor division by sustaining phenotypic variation, which allows them to handle complex tasks efficiently. Similarly, achieving high degrees of compartmentalization in monocultures of engineered cells can bring tremendous benefits to multiple applications of synthetic biology, including healthcare, industrial use, and environmental remediation. Our project aims to develop a versatile set of tools that can help create and maintain stable phenotypic variation in cellular monocultures using bacteriophage-derived Cre recombinases, which recognize and invert a loxP-flanked genetic sequence in a stochastic manner. We introduced and assessed different mutations in the Cre enzyme to improve its accuracy and conducted pilot experiments for establishing ratiometric control of cellular phenotypes. To confirm the experimental phenotypic ratios, we built computational simulations that successfully predicted the phenotypic ratios and assessed phenotypic populations' stability and convergence with the coefficient of variation. [Wiki](https://2020.igem.org/Team:Hong_Kong_HKU) | [Project Promotion](https://video.igem.org/videos/watch/2050666f-325f-4a58-b7a1-4917120b5d4e)https://static.igem.org/peertube/streaming-playlists/hls/0b30637f-60a5-48ea-9c82-fbdde6a82c85/edf1b299-1eb4-4781-8256-bb8e7728918e-master.m3u8https://video.igem.org/videos/embed/2o8VWEtkLbeUzYYSWRphbr119801632020-11-01T05:21:30.491ZHongKongFoundationalAdvanceAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/kkbvJJ38VhPC6ARce2XL56https://video.igem.org/lazy-static/thumbnails/6f10c520-dcfc-42a3-b166-343103053c33.jpgCCU_Taiwan: DENDETX (2020) - Team Presentation [English]**Title:** Peptide-based dengue virus detection - DENDEX **Abstract:** Dengue fever is listed as one of the 'Top Ten Health Threats' by the World Health Organization, which threatens approximately 3.95 billion people in tropical and subtropical regions. C-type lectin domain family 5 member A (CLEC5A), a receptor locating on the surface of macrophages, could interact with the envelope protein of dengue virus and trigger the signal transduction to cause the life-threatening cytokine storm. Based on this knowledge, we tried to develop a dengue virus detection kit 'DENDEX' using the peptides based on the partial sequences from CLEC5A. First, we confirmed the interaction of these peptides and the envelope protein using docking simulation. Then, we produced these peptides massively using a novel technique, called linear array epitope (LAE). These peptides will be used for detecting dengue virus in our kit, which contains gold nanoparticles as indicators. We hope this type of detection kit will provide a new diagnostic perspective. [Wiki](https://2020.igem.org/Team:CCU_Taiwan) | [Project Promotion](https://video.igem.org/videos/watch/07e50dfa-0f9a-4b5d-ac09-52149c60b500)https://static.igem.org/peertube/streaming-playlists/hls/9c8b3eae-9a31-4497-adf3-4c737d41bb25/8d9ea76b-e3e0-4f99-9829-14bf6093406f-master.m3u8https://video.igem.org/videos/embed/kkbvJJ38VhPC6ARce2XL5610880772020-11-01T05:35:48.568ZDiagnosticsAsiaTaiwanYES2020 Team PresentationsNOhttps://video.igem.org/w/8HbczKPnMGt19zrPG6csMvhttps://video.igem.org/lazy-static/thumbnails/d3abe045-fc19-4297-9844-f6364eb4600e.jpgNUDT_CHINA: Predator Pro: a modularized toolbox for signal-controlled Targeted P... (2020) - Team...**Title:** Predator Pro: a modularized toolbox for signal-controlled Targeted Protein Degradation **Abstract:** Exactitude temporal control of protein abundance is critical for the robustness and dynamics of synthetic circuits. While multiple approaches have been developed to manipulate the protein synthesis, few tools have been demonstrated to precisely control untagged protein degradation. Here, we present Predator Pro, a modularized and signal-controllable method for target protein degradation, on the basis of the Predator system we demonstrated in iGEM 2018-19. By rationally reengineer the Trim21 protein, we demonstrated that the interaction between Trim21 and antibody Fc domain can be replaced with other constitutive or inducible protein dimerization pairs. We demonstrated that constitutive DocS-Coh2 interaction or rapamycin-induced FRP-FKBP interaction enabled constitutive or drug-controlled degradation of untagged EGFP protein. As an effective expansion of the current synthetic biological tools for protein abundance control, this system may provide a modularized and convenient platform for controlled protein degradation, which might be applied in fundamental researches and clinical applications. [Wiki](https://2020.igem.org/Team:NUDT_CHINA) | [Project Promotion](https://video.igem.org/videos/watch/a7d97dc6-2c87-420c-a64d-5bf9aceef04d)https://static.igem.org/peertube/streaming-playlists/hls/3e6fc03f-b1e2-438e-9ca6-9c9e9f04b73f/cb3a1e3e-bfac-433c-9af2-28dd5e599831-master.m3u8https://video.igem.org/videos/embed/8HbczKPnMGt19zrPG6csMv11660702020-11-01T05:56:12.337ZFoundationalAdvanceChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/ej9uCpiitoAwoWst2Rpuxvhttps://video.igem.org/lazy-static/thumbnails/944841ec-3888-4af8-a4f1-11ac450c146c.jpgIISER-Tirupati_India: Coli Kaze (2020) - Team Presentation [English]**Title:** In-situ Bioremediation of Antibiotics for Combating Antimicrobial Resistance (AMR) **Abstract:** The irresponsible and off-label use of antibiotics in animal husbandry as growth promoters have contributed significantly to antimicrobial resistance (AMR). Phage therapy, the current best solution, is also failing due to CRISPR and other innate bacterial defences. To combat antibiotic pollution, we have developed a proof-of-concept model to engineer E. coli harnessing a two-component sulfonamide degrading system that degrades the sulfonamides present in poultry waste below the Predicted No Effect Concentrations, preventing selection for resistant strains. Our system renders the poultry waste antibiotic-free and makes it safe to use as manure. Surface exclusion genes have been integrated into the bacteria to reduce horizontal gene transfer. A user modulated 'kill switch' with a DNA degrading mechanism is also engineered to prevent the escape of AMR genes to the environment and ensure biosafety. This proof-of-concept model can be extended for other antibiotics by switching the antibiotic degrading genes involved. [Wiki](https://2020.igem.org/Team:IISER-Tirupati_India) | [Project Promotion](https://video.igem.org/videos/watch/b35b09c9-6db0-4d58-be0a-e548d92b2d77)https://static.igem.org/peertube/streaming-playlists/hls/6bcf6cbf-50e5-4294-a485-89d2f8619a1b/4848b174-3bb5-4f25-8e49-76b44c07e4d8-master.m3u8https://video.igem.org/videos/embed/ej9uCpiitoAwoWst2Rpuxv11870792020-11-01T06:07:51.610ZIndiaEnvironmentAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/4WoudUjxko7etB2fTqYwVxhttps://video.igem.org/lazy-static/thumbnails/3cc78db9-6bad-48f6-8c1f-d5e899a54328.jpgLINKS_China: PICACHU: PIlin Constructed nAnowires production CHassis Unlocking (2020) - Team Pres...**Title:** PICACHU: PIlin Constructed nAnowires production CHassis Unlocking **Abstract:** Electronic conductive pili (e-pili) is an electricity conduction material produced by microbes, which has been proved for its electricity production in humid environments. Recently, various e-pilis were discovered but not suitable for large-scale production due to the severe cultivation conditions and bio-safety concern. This year, LINKS_China designed PICACHU, an E.coli chassis to express different e-pilis. We manufactured a pili-generator consists of 12 genes for pili assembly, expressed three pilins, and created a new measurement to verify the pili production. Furthermore, we renovate the generator and optimize the growth condition of the cells to increase the yield. Ultimately, we transformed the e-pilis product into a nanowire battery and expect it to provide sustainable clean energy. We are aiming to apply PICACHU to track migrant birds, to monitor the wetland, and to trace the trash flowing movement in the ocean. Hopefully, more possibilities of e-pili application will be explored in the future. [Wiki](https://2020.igem.org/Team:LINKS_China) | [Project Promotion](https://video.igem.org/videos/watch/b1c2c6aa-c01a-4540-9200-d6375af54ee3)https://static.igem.org/peertube/streaming-playlists/hls/1fe36ffa-7c61-4b47-8872-15ebe0971e79/99f127c8-5898-4746-9a31-5f3f88131b6c-master.m3u8https://video.igem.org/videos/embed/4WoudUjxko7etB2fTqYwVx11950522020-11-01T06:15:48.937ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/5D18ioTxyngYBkrq2b3iZWhttps://video.igem.org/lazy-static/thumbnails/fd2b09eb-dffa-491e-a7c5-9502f6521a97.jpgXiamen_city: Construct Probiotic E. coli That Cleans Reactive Oxygen Species in ... (2020) - Team...**Title:** Construct Probiotic E. coli that Cleans Reactive Oxygen Species in the Gut **Abstract:** Sleep deprivation causes death by accumulating Reactive Oxygen Species (ROS) in the gut. One way of preventing the accumulation is gut-targeted transgenic expression of antioxidant enzymes. Therefore, we use probiotics living in the gut to express Superoxide Dismutase (SOD) and Catalase (CAT) to eliminate the excess ROS. We first overexpressed SOD and CAT in E. coli separately and purified the overexpressed proteins. Both proteins were overexpressed successfully in E. coli and functioned properly. Furthermore, using plasmid p15A, we constructed the E. coli with in vitro display technology. This E. coli is effective for cleaning ROS, so our experiment lays the foundation for cleaning ROS in the human gut. [Wiki](https://2020.igem.org/Team:Xiamen_city) | [Project Promotion](https://video.igem.org/videos/watch/a3dd1754-7493-410e-b299-60d9587d3226)https://static.igem.org/peertube/streaming-playlists/hls/258f26d5-6ebd-430e-aea7-d79f1efc7e94/01289732-903f-4599-8891-5a700edb1180-master.m3u8https://video.igem.org/videos/embed/5D18ioTxyngYBkrq2b3iZW10150932020-11-01T06:25:28.296ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/hATeVmQ1uoMK5QVzGtDmdThttps://video.igem.org/lazy-static/thumbnails/c2858bea-1e62-4f54-9fe3-368bac7000d5.jpgSEHS-China: Histamine Killer (2020) - Team Presentation [English]**Title:** Histamine Killer: A system Provides Early Warning and Symptom Relief for Allergy Sufferer **Abstract:** Hay fever, a common allergy caused by pollen invading and stimulating the immune system to release histamine which is the main substance causing tissue edema, is reported that more than 40% of the world's population are affected. To reduce its harm, SEHS-China created a bio-system that can alert people and relieve allergic symptoms in the early allergy stage. Our main idea is to build a Histamine Sensor in bacteria or cell-free systems which can emit a fragrance when histamine level rises on the skin and nasal mucosa and also release rDAO, a histamine oxidase, to alleviate symptoms. This system is not limited as a drug to prevent allergies, but available for other applications such as clinical testing and detection of allergens in food. We hope that people susceptible to allergy can be greatly benefited from our product in the future. [Wiki](https://2020.igem.org/Team:SEHS-China) | [Project Promotion](https://video.igem.org/videos/watch/959a8207-e03a-4e58-80fd-8d11553c8096)https://static.igem.org/peertube/streaming-playlists/hls/867115a2-8df5-4ed5-998e-3b47b5a199f3/f92a23fc-033b-40c3-aabf-e0d1a5bb0e5a-master.m3u8https://video.igem.org/videos/embed/hATeVmQ1uoMK5QVzGtDmdT11990262020-11-01T06:40:15.472ZHighSchoolChinaAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/arGQivA1qvPLomhyoXZFswhttps://video.igem.org/lazy-static/thumbnails/cf0bb6f3-f9e6-4dd8-a97c-100477d0895a.jpgNanjing_high_school: “Accuriculture” --- with phosphorus solubilizing bacteria (2020) - Team Pres...**Title:** 'Accuriculture' --- with phosphorus solubilizing bacteria **Abstract:** RePhos. is developing methods to make better use of phosphorus in soil. Our project aims to increase crop yield and minimize pollution caused by phosphorus runoffs. By genetically editing phosphorus solubilizing bacteria, we insert a gene important for bacteria's survivals. This can constrict the area where bacteria can survive, so they are only close to the rhizosphere. The products are fertilizer adjuvants for farmers and agent kits for scientists. These create a Smart and Accurate form of agriculture, called 'accuriculture'. To provide practical solutions to the issue, we also researched the market and interviewed some target customers. We communicated with professors in the area in order to prepare a more useful product. Finally, we made a business plan to attract investors and funding. We provide a comprehensive solution that even has the practical potential to be applied on broader aspects. [Wiki](https://2020.igem.org/Team:Nanjing_high_school) | [Project Promotion](https://video.igem.org/videos/watch/82c43f0c-9840-49b5-8cfa-964f29e35cf6)https://static.igem.org/peertube/streaming-playlists/hls/4c79019c-54a5-427a-abbd-a9ad05365b96/1bc27e96-c5e4-44c7-bc2a-2161c1eed0d2-master.m3u8https://video.igem.org/videos/embed/arGQivA1qvPLomhyoXZFsw11670382020-11-01T06:45:56.163ZChinaAsiaHighSchoolYES2020 Team PresentationsNOhttps://video.igem.org/w/3v5cgu9ndNiRoTDTNYv44vhttps://video.igem.org/lazy-static/thumbnails/15711e5a-28d5-4e9f-b5eb-b883fa41ec7e.jpgShanghai_HS: Combining PhoA and eGFP to Create a Biosensor that Detects Phosphat... (2020) - Team...**Title:** Combining PhoA and eGFP to Create a Biosensor that Detects Phosphate Concentration Rapidly **Abstract:** Phosphorus pollution is the leak of phosphorus compound into water, which causes serious problems to people's health. Complicated technologies have already been invented to test the purity of water, however, those procedures always cause huge amount of money and energy. We found that a certain gene activity in E.coli will be inhibited with the presence of phosphorus. As a result, combing with a fluorescent protein, the gene will show its reaction when encountering certain concentration of phosphorus. Using this strategy we will be able to conduct pre-test of water pollution before investing much money and energy on processing unpolluted water. And through editing the gene, we will be able to detect water sources' phosphorus concentration that will harm human health by an easy and inexpensive method. We expect our experiment to become the starting point of detecting water pollution through biological method. [Wiki](https://2020.igem.org/Team:Shanghai_HS) | [Project Promotion](https://video.igem.org/videos/watch/47a3494b-d6ed-4798-bb6c-e24a1c397795)https://static.igem.org/peertube/streaming-playlists/hls/14416e73-bd65-4f3d-8c5b-ca6de4947b3f/6db55211-f91a-4fab-b21a-021af9a0f59a-master.m3u8https://video.igem.org/videos/embed/3v5cgu9ndNiRoTDTNYv44v11490312020-11-01T06:58:17.795ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/dgfK39ywdA2QVg8yP1HBYshttps://video.igem.org/lazy-static/thumbnails/c7df7c2e-2787-4658-8e99-e5a97de18608.jpgShanghai_high_school: ER Sensor (2020) - Team Presentation [English]**Title:** ER Sensor **Abstract:** Exogenous endocrine disruptors are called environmental hormones. EDCs are compounds that affect metabolism. These substances mimic natural hormones or hinder the action of normal human hormones. EDC surged in the environment in the past decades. Chemical substances created by industrial world are the cause of environmental hormones. About 70 kinds of chemical substances are widely used in fungicides, preservatives, insecticides, pesticides, food additives, plastic products, and so forth. In addition, harmful substances are also detected from rivers to the ocean in the world. Over 30 types of endocrine hormones were detected from the seeping water at the industrial waste disposal site. Since estrogen in the environment causes severe endocrine disorders, threatening the health of the fetus and children (obesity caused by cancer and metabolic disorders is also thought to be linked), we aim to create an estrogen sensor, namely ER Sensor, to detect the estrogen in the environment around us. [Wiki](https://2020.igem.org/Team:Shanghai_high_school) | [Project Promotion](https://video.igem.org/videos/watch/1cea989b-70a7-4d94-8ac2-ebee8c5f6b2f)https://static.igem.org/peertube/streaming-playlists/hls/634ee7d2-d9ec-4891-9b4b-f0833591ebfe/5471c69c-4605-49f3-8fb1-08d4c69312f2-master.m3u8https://video.igem.org/videos/embed/dgfK39ywdA2QVg8yP1HBYs11990872020-11-01T07:06:23.313ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/nqvQxTbUPHtUdxFyAoqjR6https://video.igem.org/lazy-static/thumbnails/3560629e-0584-41a5-94f6-ab4411811a2d.jpgShanghai_city: AtreXtinct: To find an efficient way of detecting herbicide pollu... (2020) - Team...**Title:** AtreXtinct: To Find Efficient way of Detecting Herbicide Pollution Caused by Atrazine in the Environment **Abstract:** Atrazine is a contaminant for natural resources, which is dangerous for both people and wildlife. To be specific, atrazine can lead to serious diseases like prostatic cancer and breast cancer. However, owing mainly to the superior efficacy and economy of atrazine, the current policy in most countries is to strengthen registration instead of explicitly restrict the use of it. Furthermore, all the atrazine detection equipment in the market today have major flaws - expensiveness, heaviness, and difficulties in application. Thus, atrazine will leak into farms, lakes, and ocean without an effective and economical solution. To solve this problem, our team aims to envision a sytstem that degrades convert atrazine into cyanuric acid, which can be detected by human eyes under the condition of the excitation spectrum. In this way, it will be possible for us to create a convenient way to detect atrazine. [Wiki](https://2020.igem.org/Team:Shanghai_city) | [Project Promotion](https://video.igem.org/videos/watch/12e10e6e-e2ee-4729-b469-e603c83bb0c6)https://static.igem.org/peertube/streaming-playlists/hls/ad7c266b-e1d8-4009-9000-6ed37529da87/bfe9f8dc-c2c8-4f1e-9c28-6e8e750ec026-master.m3u8https://video.igem.org/videos/embed/nqvQxTbUPHtUdxFyAoqjR610880332020-11-01T07:18:48.155ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/aWkNF6UmT3RWyPoeq9vy4Lhttps://video.igem.org/lazy-static/thumbnails/a9e2a0d3-9106-480d-a6aa-a53883bbbf48.jpgShanghai_HS_United: Be Friends with Galactose—Build a probiotic to transform (2020) - Team Presen...**Title:** Be Friends with Galactose - Build a probiotic to transform galactose into beneficial acids **Abstract:** Saccharine diseases troubled humanity for thousands of years since we started to expand our diets. In China, the number of affected patients already towered over 100 million and still rising. We wanted to help relive patients with galactosemia, one of the saccharine diseases with the highest prevalence rate and detrimental influence. Our team came up with an innovative idea which is to engineer a probiotic with the function to decompose galactose into butyric acid, a useful short chain fatty acid. We engineered three different plasmids, each with its own capabilities that is essential for galactose breakdown. Using a competent E.Coli Nissle 1917cell, we transfer the plasmids into the cell, creating our final product. Eventually, the probiotics was successfully engineered in the laboratory. We plan to produce it as a health-care beverage product after analyzing over 400 pieces of survey and suggestions from experts in medicine and milk industry. [Wiki](https://2020.igem.org/Team:Shanghai_HS_United) | [Project Promotion](https://video.igem.org/videos/watch/dbc8288b-07b4-431b-811b-86cb901e740b)https://static.igem.org/peertube/streaming-playlists/hls/50789dda-95b0-4771-a2ca-6d112abe12a2/009a4f7c-aa48-43fe-83c5-57ff8ce89b1a-master.m3u8https://video.igem.org/videos/embed/aWkNF6UmT3RWyPoeq9vy4L11990482020-11-01T07:30:45.489ZHighSchoolAsiaChinaYES2020 Team PresentationsNOhttps://video.igem.org/w/fwgxLeySYwef83JtkCj1r6https://video.igem.org/lazy-static/thumbnails/5f1916e9-c904-4812-a79e-7581e6fc48a7.jpgGroningen: RootPatch (2020) - Team Presentation [English]**Title:** RootPatch **Abstract:** Potatoes are an important crop for many cultures. They provide more carbohydrates, proteins, minerals and vitamins per unit area of land and time as compared to other crops and are therefore a popular choice for many farmers and consumers. However, the growth of the potato plant is severely affected by parasitic nematodes that feed on the roots of the plant. Per year, around 460 million dollar is lost due to these nematodes. Our project RootPatch provides a solution to this problem. RootPatch is a bacterial layer around the roots of the potato plant. The bacteria in RootPatch are engineered to produce neuropeptide-like proteins, a class of neuropeptides which specifically influence the behaviour of the parasitic nematodes, making them avoid the root system of the plant. To guarantee safety, the engineered bacteria are dependent on the potato plant, making sure that they stay where they are supposed to be. [Wiki](https://2020.igem.org/Team:Groningen) | [Project Promotion](https://video.igem.org/videos/watch/094df117-c96f-4c7b-820b-a8bf8d62d4c6)https://static.igem.org/peertube/streaming-playlists/hls/7599d5fe-1917-4843-8df7-a9af36e9e75f/99aa6ae2-483f-4bf0-a2d3-49048d5ea0f3-master.m3u8https://video.igem.org/videos/embed/fwgxLeySYwef83JtkCj1r6119902242020-11-01T07:41:14.006ZEuropeFood&NutritionNetherlandsYES2020 Team PresentationsNOhttps://video.igem.org/w/dzmTK4RnXHoxKpbVwCx8bQhttps://video.igem.org/lazy-static/thumbnails/1a356a7d-c58a-45e8-9d7b-8e960c6ada4c.jpgAHUT-ZJU-China: Carbon Dioxide Capture 3.0 (2020) - Team Presentation [English]**Title:** carbonic anhydrase 3.0 **Abstract:** Greenhouse gas emissions lead to a rise in global average temperatures, which will endanger human lives and lives. We decided to use the biomimetic method of enzyme (carbonic anhydrase), which has the advantages of safety, high catalytic efficiency and environment-friendly compared with other methods of capturing and concentrating CO2. We designed an efficient and stable CA by improving the catalytic performance of CA from thermophilic bacteria and the biological stability of capturing CO2. We use computer-aided analysis software to predict the ideal mutation site of the protein. Then we carried out enzyme-substrate molecular docking and enzyme-solvent kinetics simulation, constructed wild-type and mutant CA prokaryotic expression vectors, and expressed and purified the protein. Finally, we carried out functional identification to determine whether the activity of the mutant protein changed and whether the thermal stability was significantly improved. [Wiki](https://2020.igem.org/Team:AHUT-ZJU-China) | [Project Promotion](https://video.igem.org/videos/watch/d7b887c3-7884-4139-999e-0165f19745f2)https://static.igem.org/peertube/streaming-playlists/hls/65d61563-a410-4ec0-b0df-e6b50d1ecd88/16f68cb5-e617-4c2c-b6e4-7bdedd25dbae-master.m3u8https://video.igem.org/videos/embed/dzmTK4RnXHoxKpbVwCx8bQ111805922020-11-01T08:01:32.285ZAsiaChinaEnvironmentYES2020 Team PresentationsNOhttps://video.igem.org/w/9sU6yxEbYJmkQrqd7sGnTdhttps://video.igem.org/lazy-static/thumbnails/1425fcd4-77c3-4e3f-bacf-e849d0b6c908.jpgTUDelft: PHOCUS: Target locusts from within (2020) - Team Presentation [English]**Title:** PHOCUS - Target locusts from within **Abstract:** Since ancient history, locust plagues have been devastating crops and pastures, threatening food security across the globe. Current strategies to fight locust swarms rely on unspecific and dangerous chemical pesticides that harm other insects, or on biopesticides that are too slow. Our mission is to provide a novel biopesticide against locusts that is fast-acting and safe. We introduce PHOCUS, a biopesticide based on engineered bacteriophages that infect the gut bacteria of the locust. After infection, the bacteria produce a crystal protein (Cry7Ca1) from Bacillus thuringiensis (Bt) that specifically harms locusts, and RNA interference (RNAi) precursors, all encoded within the phage genome. Cry7Ca1 punctures the gut lining, harming the locust and allowing the RNAi precursors to reach the hemolymph, where they mature and silence the expression of vital locust genes. With this unique complementary approach, PHOCUS kills the locusts from within. [Wiki](https://2020.igem.org/Team:TUDelft) | [Project Promotion](https://video.igem.org/videos/watch/4c7ec21c-89eb-4491-97ca-b2f06e039d8d)https://static.igem.org/peertube/streaming-playlists/hls/448a8d72-7463-4893-8e14-09647a1bd72e/0f443030-1901-43f4-8c79-de044658a9d5-master.m3u8https://video.igem.org/videos/embed/9sU6yxEbYJmkQrqd7sGnTd1153019752020-11-01T08:20:37.916ZFood&NutritionEuropeNetherlandsYES2020 Team PresentationsNOhttps://video.igem.org/w/axXKBYak5sbyKUFAEbS2zyhttps://video.igem.org/lazy-static/thumbnails/6ed589e6-ab98-48fe-83f5-e76f782ef362.jpgTAS_Taipei: Viral Spiral (2020) - Team Presentation [English]**Title:** Viral Spiral: An Accurate, Fast and Simple Viral Diagnostic Test **Abstract:** Seasonal flu and pandemics, which account for millions of infections and hundreds of thousands of deaths, require rapid and reliable detection mechanisms to implement preventive and therapeutic measures. Current detection methods of viral infections have limitations in speed, accuracy, accessibility, and usability. This project presents a novel, widely applicable viral diagnostic test that uses a modified version of rolling circle amplification (RCA) to be sensitive, specific, direct RNA targeted, colorimetric and operable at room temperature. We are specifically detecting the following high-impact viruses: SARS-CoV-2, Influenza A (H1N1pdm09), and Influenza B (Victoria Lineage), although our test can be adapted to any viral infection. Results using synthetic viral DNA and RNA sequences show that our diagnostic test takes approximately one hour, detects femtomolar concentrations of RNA strands, and differentiates between virus strains. We believe implementing our diagnostic test will provide faster responses to future viral-related outbreaks for quicker societal recovery. [Wiki](https://2020.igem.org/Team:TAS_Taipei) | [Project Promotion](https://video.igem.org/videos/watch/79891502-dde2-435d-9e8b-153125816640)https://static.igem.org/peertube/streaming-playlists/hls/4d58a9ca-677d-485f-9513-0b9e53a358ee/df8ca6ff-4599-4f06-98bd-922eddc8c803-master.m3u8https://video.igem.org/videos/embed/axXKBYak5sbyKUFAEbS2zy109907452020-11-01T08:35:17.587ZTaiwanHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/oEQi5PCb86nrTiTVHFrjBphttps://video.igem.org/lazy-static/thumbnails/134e0649-c957-4d05-ab60-6f95bc9000e9.jpgOSA: MetZYME (2020) - Team Presentation [English]**Title:** metZyme: A DNAzyme-based Heavy Metal Ion Detection Kit **Abstract:** High-density metals like lead and mercury, also known as heavy metals, have severely harmed the environment and our bodies. Every year heavy metal exposure results in millions of disabilities worldwide. Surprisedly, previous detecting methods for this urgent issue either require bulky instruments or professional technicians. Thus, it is imminent for us to devise a cheap, portable, accessible, accurate detection kit. We use DNAzyme, which can cleave ssDNA when combined with Zn2+, Mn2+, Pb2+. Cu2+. To maximize outputs, four amplification systems (HTDC, Toehold Switch, TO-DNA, and CRISPR-Cas12a) are also used. While we test these theories in lab, our human practice team interviews experts and discovers such a kit is not only needed for water detection but also for soil, which becomes the new focus of our project. We have achieved fluorescence and lateral flow detection of heavy metal ions which contribute to alleviating this severe environmental issue worldwide. [Wiki](https://2020.igem.org/Team:OSA) | [Project Promotion](https://video.igem.org/videos/watch/d532b3e1-f2b6-4a14-b25a-dffa04cea664)https://static.igem.org/peertube/streaming-playlists/hls/b795138b-5f83-4b82-a7f6-b80f4101b445/1459e65d-d078-444b-81dd-45190e91c64b-master.m3u8https://video.igem.org/videos/embed/oEQi5PCb86nrTiTVHFrjBp9760752020-11-01T08:49:15.008ZChinaHighSchoolAsiaYES2020 Team PresentationsNOhttps://video.igem.org/w/puHDUUZ9zLoTyLoP8WeWM1https://video.igem.org/lazy-static/thumbnails/f12c01a7-6c85-431a-9e1e-a37eb62b36ca.jpgCornell: Lumicure (2020) - Team Presentation [Chinese]**Title:** Lumicure **Abstract:** This year, Cornell iGEM aims to design a bacteriotherapy treatment and tracking system for cancerous malignant tumors. This system aims to take advantage of the fact that cancerous tumors have an immunoprivileged microenvironment and that malignancies migrate through the bloodstream to other parts of the body. To our bacteria, we will introduce genetic constructs coding for a therapeutic: trichosanthin. We have designed a lactate-inducible toxin-antitoxin system (GhoS/GhoT) which ensures the E. coli do not survive outside of the high-lactate environment of the tumor. These E. coli cells will also be engineered to constitutively express mCardinal, a fluorescent protein, detectable by our fluorescence detection system. This detection system will consist mainly of: an excitation filter and emission filter, a dichroic mirror, a laser, and a raspberry pi microcontroller. We hope that we can effectively demonstrate a proof-of-concept for this treatment system in treating real cancerous tumors later on down the line. [Wiki](https://2020.igem.org/Team:Cornell) | [Project Promotion](https://video.igem.org/videos/watch/28d926b4-f877-40ef-bea6-6acc06a3b922)https://static.igem.org/peertube/streaming-playlists/hls/be44af49-cfdd-4a26-8271-5ba937cb1152/383d4989-f851-4822-9eac-dce8f03c03af-master.m3u8https://video.igem.org/videos/embed/puHDUUZ9zLoTyLoP8WeWM110020912020-11-03T10:50:06.946ZTherapeuticsNorthAmericaUnitedStatesYES2020 Team PresentationsNOhttps://video.igem.org/w/8RU16p8yTwVjNTKPsX9G3whttps://video.igem.org/lazy-static/thumbnails/ec2d88eb-a95e-491a-a709-680c8b201a14.jpgKCL_UK: Renervate (2020) - Team Presentation [English]**Title:** Creation of a 3D-bioprinted polycaprolactone scaffold with mussel-foot protein Pvfp-5β-based bioadhesive coating for biomedical applications. **Abstract:** Annually, between 250,000 and 500,000 individuals worldwide suffer from a spinal cord injury (SCI). SCI is characterised by damage to the spinal cord followed by a complex pathophysiological response and loss of neuronal function below the site of injury. The limited regenerative abilities of the CNS combined with the inhibitory environment created by the glial scar at the affected area pose numerous challenges to restoring function. Working towards a therapy for SCI, we have designed and modelled a biodegradable scaffold composed of polycaprolactone, that incorporates a synthetic mussel-foot protein based bioadhesive coating, to encourage axonal attachment, and can be produced using 3D-bioprinting methods. Our scaffold is customisable and contains the necessary micro- and macro-architectures predicted to topographically encourage axonal regrowth and withstand the mechanical forces in the spine. We have further investigated in silico the physicochemical properties of our chosen protein Pvfp-5Œ≤ to better understand its biotherapeutic use. [Wiki](https://2020.igem.org/Team:KCL_UK) | [Project Promotion](https://video.igem.org/videos/watch/7f90851a-3d85-4feb-9ce0-1b0e5d87aa5b)https://static.igem.org/peertube/streaming-playlists/hls/3fa77664-ee2e-4ac9-8977-b539cbe63862/ecbacf2f-477a-4f2f-abbc-6aa8e9966e6b-master.m3u8https://video.igem.org/videos/embed/8RU16p8yTwVjNTKPsX9G3w119301432020-11-03T10:25:10.274ZEuropeTherapeuticsUnitedKingdomYES2020 Team PresentationsNOhttps://video.igem.org/w/27NSsXBQykYsRitW8LCJhzhttps://video.igem.org/lazy-static/thumbnails/be1d9cc9-63a6-4a3e-84d4-db79dee0bbbc.jpgCLS_CLSG_UK: CocEels (2020) - Team Presentation [English]**Title:** Project CocEels **Abstract:** As a school located on the banks of the River Thames in London, we are focussing on the impact of cocaine upon the critically endangered European Eel, Anguilla anguilla. Concentrations of cocaine as low as 30 ng/L have been shown by studies to have detrimental impacts upon their migration and breeding patterns. In addition to this, high drug concentrations have even been detected in drinking water in countries such as Brazil due to lack of effective filtration systems. We aim to solve this problem by using genetically modified E. coli bacteria immobilised in the primary sedimentation tanks of the sewers. We also designed a novel, hypoxia induced toxin-antitoxin kill switch which will destroy our bacteria in the presence of standard anaerobic processes in wastewater treatment plants and hence prevent our bacteria from spreading into the wider ecosystem. [Wiki](https://2020.igem.org/Team:CLS_CLSG_UK) | [Project Promotion](https://video.igem.org/videos/watch/18084fdb-850b-4cee-98dc-4cc1edab736b)https://static.igem.org/peertube/streaming-playlists/hls/090c7c6a-290b-4599-b07e-e4df68c7bf69/5e5d97ee-372c-4785-ad55-5ad62a3c73f2-master.m3u8https://video.igem.org/videos/embed/27NSsXBQykYsRitW8LCJhz98802052020-11-03T23:07:17.346ZEuropeHighSchoolUnitedKingdomYES2020 Team PresentationsNOhttps://video.igem.org/w/o9wo8jga36Y8LA44SnZBkShttps://video.igem.org/lazy-static/thumbnails/93e502ab-23cb-41b1-9c02-d021d1e352ef.jpgJudging Dashboard (2020)Judging Dashboard (2020)https://static.igem.org/peertube/streaming-playlists/hls/b359b953-ce21-4f50-8473-b0947bd78724/8ff563f4-76bf-4621-a352-43198b1806a5-master.m3u8https://video.igem.org/videos/embed/o9wo8jga36Y8LA44SnZBkS28102692020-11-04T19:09:12.871ZYESJudging CommitteeNOhttps://video.igem.org/w/vhZkBUPP8TqvyvpQu5L1mJhttps://video.igem.org/lazy-static/thumbnails/eb1d124f-9329-4ce8-945e-72f047076881.jpgTAU_Israel: sTAUbility (2020) - Team Presentation [English]**Title:** sTAUbility - an innovative approach to increase the genetic stability of heterologous genes **Abstract:** A key challenge in the field of synthetic biology is genomic instability of introduced genes. Once a gene is inserted into a host organism, it can cause an additional metabolic load, significantly reducing host fitness. Mutations that damage the introduced gene are therefore likely to be selected for, diminishing its expression. These mutations could render synthetic-biology products obsolete and require constant maintenance. We propose interlocking a target gene to the N-terminus of an essential gene in the host's genome, under the same promoter. This way, mutations on the target gene are likely to affect the expression of the essential gene, leading to mutated host mortality. We are developing a software called sTAUbility, that would match the best-fitting essential gene and linker to a given target gene, based on bioinformatic models and novel approaches for measuring stability. Furthermore, sTAUbility optimizes the combined construct for efficient gene expression and increased stability. [Wiki](https://2020.igem.org/Team:TAU_Israel) | [Project Promotion](https://video.igem.org/videos/watch/6a19b3c1-5eb9-4b92-8b0a-b86cc72c4e1e)https://static.igem.org/peertube/streaming-playlists/hls/ed3841e6-30b6-4055-8f43-66972fcbb3d2/21074cad-5cb4-48b6-8344-96f313fb3bf5-master.m3u8https://video.igem.org/videos/embed/vhZkBUPP8TqvyvpQu5L1mJ116408112020-11-10T08:33:12.244ZFoundationalAdvanceAsiaIsraelYES2020 Team PresentationsNOhttps://video.igem.org/w/rsqTffTauA3Uaj6tDhv3Qmhttps://video.igem.org/lazy-static/thumbnails/d27df0d8-08a4-453a-adaf-95b48fec9ee1.jpg2020 Poster Sessions - Remo Platform Walk Through2020 Poster Sessions - Remo Platform Walk Throughhttps://static.igem.org/peertube/streaming-playlists/hls/ce2523b9-a172-48e6-8bbf-203e00880624/5449abfb-c18b-4685-8916-4cb86e4a43d0-master.m3u8https://video.igem.org/videos/embed/rsqTffTauA3Uaj6tDhv3Qm617011052020-11-11T21:06:45.322ZYESiGEM FoundationNOhttps://video.igem.org/w/1RDQZ6ZZ6xNuPf2HHCb7SNhttps://video.igem.org/lazy-static/thumbnails/5cfe10d4-d25d-4a8c-b236-8a4364c20f20.jpgiGEM 2020 Virtual Giant Jamboree: Opening CeremonyThis is the moment we’ve all prepared for - The Jamboree is here! Kick off the 10-day long journey of Competition, Community, Contribution and Celebration with a big global Opening Ceremony. The show will be streamed 3 times – in the evening of each zone (APAC – Asia Pacific, EMEA – Europe, Middle East &amp; Africa, and the Americas). We will welcome you with insights of 2020, appreciation of the exceptional year for the iGEM community, keynote talks from iGEM Headquarters, our partners, and a special introduction of what to expect at the Virtual Giant Jamboree. Join thousands around the globe that shared the 2020 iGEM Experience! https://2020.igem.org/Giant_Jamboreehttps://static.igem.org/peertube/streaming-playlists/hls/06eec46b-c4ba-42c2-a9e8-beb06359fb8a/961df23c-ee68-41c7-ba85-0da0882dee65-master.m3u8https://video.igem.org/videos/embed/1RDQZ6ZZ6xNuPf2HHCb7SN295505492020-11-14T00:13:39.020ZceremonyopeningYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/tV3nMpD9ELjeB65E4vmUEQhttps://video.igem.org/lazy-static/thumbnails/f0b2f590-d529-47b6-bc60-3a4414e7df5d.jpgHow iGEM teams are using SnapGene and GeneiousJoin us as we introduce you to SnapGene and Geneious’s core features and how other iGEM teams are using them to create successful experiments. In this webinar, we’ll demonstrate the best ways to plan, visualize and document molecular biology procedures with SnapGene and unlock the value of your sequence data with Geneious.https://static.igem.org/peertube/streaming-playlists/hls/e20ea0ac-06ce-4a4d-912b-bc587e51c96c/a2f18d11-8d26-4ead-98fd-5e3d52e58441-master.m3u8https://video.igem.org/videos/embed/tV3nMpD9ELjeB65E4vmUEQ18550282020-11-17T10:24:24.699ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/2vVHcwbvVboBcVb9xYir1bhttps://video.igem.org/lazy-static/thumbnails/79817d03-e3fc-4f75-a7df-1805603ee9d1.jpgSynBio SciFi Fair - OpeningJoin us for an exhibition of +16 SynBio inspired original works developed by the participants throughout the season, with authors from Africa, Asia, Europe, Latin America and North America.https://static.igem.org/peertube/streaming-playlists/hls/0c46cee3-03b7-45df-bacd-51ddb0bd8916/8c83c84b-d9bc-46b5-b142-c46c9bc24632-master.m3u8https://video.igem.org/videos/embed/2vVHcwbvVboBcVb9xYir1b7940122020-11-17T10:25:19.805ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/kSVa3DqaJcaCKR95EcBYMVhttps://video.igem.org/lazy-static/thumbnails/57aee452-aad5-4442-b6d0-38f99203f642.jpgIndustry or Academia: Inspiration to decideHave you ever questioned yourself about what's next in your career path? Join us to get a broader perspective, guidance and inspiration about what`s out there in academia and in the SynBio industry for you. Get first handed experiences from our top Alumni experts in this fields.https://static.igem.org/peertube/streaming-playlists/hls/a0f994e1-54b1-416c-a36b-7bdb30ba672f/c8c75152-385e-4572-9721-91944c76ec61-master.m3u8https://video.igem.org/videos/embed/kSVa3DqaJcaCKR95EcBYMV25440652020-11-17T10:25:31.125ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/6cRakwGW1hvu48jHKzaPZQhttps://video.igem.org/lazy-static/thumbnails/37d6fcff-979b-43bd-b5be-bdb68ed088bd.jpgIDT: The Evolution of Synthetic Biology: a Fireside chat with IDT expertsIn the last few decades, synthetic biology has emerged making great strides in genomics, understanding evolution, and systems biology. In this workshop, join IDT’s Director of Innovation Adam Clore and Director of Business Development Tom Speedy as they discuss the progress of synthetic biology, where it is today, and what sustainable biological solutions continue to emerge and impact our lives.https://static.igem.org/peertube/streaming-playlists/hls/2a252bda-4014-4625-bd05-d6bf7fb17d4e/9a67f310-321c-4893-b906-6725bc40db8d-master.m3u8https://video.igem.org/videos/embed/6cRakwGW1hvu48jHKzaPZQ18220192020-11-17T16:20:06.571ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/7AaJzoRjPYviA69NrH8prXhttps://video.igem.org/lazy-static/thumbnails/e641f255-7ccc-4a68-be09-8b6e35ae57ec.jpgImproved methods for CRISPR HDR using Alt-R modified dsDNA donors and Alt-R HDR EnhancerCRISPR-based homology-directed repair (HDR) is an invaluable tool for researchers looking to make precise, specific mutations in a genomic region of interest. Unfortunately, HDR is a challenge for many as efficiency is often low. HDR repair outcomes with CRISPR/Cas systems are most efficient with single-stranded DNA templates when small insertions, deletions, or SNP changes are desired edits. Here, we present work demonstrating that improved efficiency in HDR rates for large insertions is obtained. Learn how IDT’s Alt-R modified dsDNA donor templates and the Alt-R HDR Enhancer V2 allows researchers to maximize HDR rates for their large knock-in experiments.https://static.igem.org/peertube/streaming-playlists/hls/355c1e74-d9ce-4890-9501-fcd0ea3fd7e5/33674904-077b-4fc2-886b-8eb3786ea4c5-master.m3u8https://video.igem.org/videos/embed/7AaJzoRjPYviA69NrH8prX18210112020-11-18T12:43:04.003ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/vqVbcafAziCtKZThef6qavhttps://video.igem.org/lazy-static/thumbnails/66cf6c85-52b4-4837-9ce8-28d502b0f9d6.jpgHuman Practices Spotlight: Megan Palmer and Ruipeng Lei in ConversationJoin Megan Palmer, a long-time Human Practices leader at iGEM, in conversation with Ruipeng Lei, a leading Chinese bioethicist, for a conversation touching on issues like cultures of responsibility, the definition of "human practices", and contrasting gene edited babies with basic research.https://static.igem.org/peertube/streaming-playlists/hls/ee53a46f-a18d-47af-8870-66edcb461ecf/e62efe8e-f1fb-44a9-8e7e-f34d69485653-master.m3u8https://video.igem.org/videos/embed/vqVbcafAziCtKZThef6qav22410352020-11-18T12:51:23.542ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/fGc2vVVnwFZwy7yfxNdHrJhttps://video.igem.org/lazy-static/thumbnails/c5783196-4f96-4eeb-9103-09a2dfee6078.jpgThe birth of Synthetic Biology & iGEM - with Drew EndyJoin Zeeshan (iGEM Ambassador to Australia) for a video version of After iGEM Podcast! In this episode: Drew Endy is a member of the bioengineering faculty at Stanford University and the President of the BioBricks Foundation. He is also the co-founder of iGEM! Join us for this very exciting episode where Zeeshan talks to Drew about turning biology into an engineering discipline, the birth of SynBio and iGEM, and the future of SynBio education.https://static.igem.org/peertube/streaming-playlists/hls/76fc7cb5-2590-4dc5-8655-10c8684eef38/6cd30544-887b-4ff0-b8bb-c66c24abe241-master.m3u8https://video.igem.org/videos/embed/fGc2vVVnwFZwy7yfxNdHrJ30650602020-11-18T12:59:39.598ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/mKxrZQTNfnraf19SBup54ihttps://video.igem.org/lazy-static/thumbnails/5e7ba356-2a79-4a40-86b9-028691a67b4f.jpgIt’s time to Decode the World! - with Arvind Gupta and Po BransonJoin Zeeshan (iGEM Ambassador to Australia) for a video version of After iGEM Podcast! On this episode: Arvind Gupta and Po Bronson talk about their new book, Decoding The World: A roadmap for the questioner. Arvind is the founder and a venture advisor at IndieBio, the world`s leading science accelerator with 136 companies to date. Po is the Managing Director of IndieBio. He`s the author of seven bestselling books, including the #1 New York Times bestseller What Should I Do With My Life? Join us for this incredibly fun episode where we decode the real cause of the pandemic, climate change, iGEM, and SynBio and silicon valley!https://static.igem.org/peertube/streaming-playlists/hls/a80b22ce-e7b0-47a1-93b4-ae8a70b32607/e4a16c8c-5e4e-4cb8-8e37-0927f3dd849c-master.m3u8https://video.igem.org/videos/embed/mKxrZQTNfnraf19SBup54i20450172020-11-18T13:11:38.022ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/a2cFwjed1cqzn3CR23TWPwhttps://video.igem.org/lazy-static/thumbnails/21d21c66-692b-4c07-a344-4b6034fdb0d8.jpgInformatics tools and NEB enzymes to enable one-pot Golden Gate Assemblies of unprecedented compl...Accelerate your Design-Build-Test cycle with Golden Gate Assembly (GGA) reagents and informatics design tools from NEB! Recent advances in understanding the fidelity, bias, and efficiency of fragment assembly in GGA now allow for assemblies of unprecedented complexity and target size in one pot – over 50 fragments, with assemblies of up to 40kB demonstrated. Data-optimized Assembly Design (DAD) using informatics tools with NEB enzymes, kits and workflows allow rapid and accurate production of large targets from many fragments with minimal screening of products required. Join NEB scientists for a discussion of the latest innovations in DNA assembly.https://static.igem.org/peertube/streaming-playlists/hls/490d30ce-0aab-452c-86f4-36414b8ada54/b27f1ae6-caaa-4134-ba65-677db8c4138c-master.m3u8https://video.igem.org/videos/embed/a2cFwjed1cqzn3CR23TWPw22510112020-11-18T13:19:31.590ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/emUMNktzVUgSvgWvVuMnp6https://video.igem.org/lazy-static/thumbnails/2873c788-09ef-4c42-a1ec-1018f96763c9.jpgLong term lab sustainability in science with My Green LabLab sustainability is increasingly important to the scientific community and iGEMers. Join Promega Corporation as we welcome Ritika Singh from our partner My Green Lab to talk about lab sustainability, My Green Lab product and lab certification programs and challenge contests, and the new My Green Lab Ambassador program. Bring your sustainability questions and be ready for an energetic discussion.https://static.igem.org/peertube/streaming-playlists/hls/6c3235f3-a58e-4489-819c-16ffc6ab2757/bcdbfce3-344b-4ee9-994c-f286feef30d8-master.m3u8https://video.igem.org/videos/embed/emUMNktzVUgSvgWvVuMnp616960182020-11-18T13:39:43.403ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/cBu7UTmx71j6d2opwRMtNnhttps://video.igem.org/lazy-static/thumbnails/e65db4f9-4735-482f-a092-2ff4a9f0e8e6.jpgExploring the COVID-19 genome and PCR diagnostics with BenchlingBenchling is a data-management platform built to help scientists design sequences, record notes and datasets, and collaborate on experiments. Rather than spend time using different software tools, paper notebooks, or spreadsheets, iGEMmers using Benchling can spend time focusing on what they care about: synthetic biology. In this interactive workshop, we will introduce how to use Benchling through a fun guided activity exploring the COVID-19 genome and visualize how PCR is used to detect the virus. Attendees can enter into a raffle afterwards to win a Benchling t-shirt! **Workshop activity**: https://benchling.com/s/etr-yjEJShSHO2MpVFkSFROYhttps://static.igem.org/peertube/streaming-playlists/hls/5e08e2e2-2caa-4720-8ae6-ce2f5ee4c2e5/1b74fbdb-4e30-4d04-b00e-48a795e63384-master.m3u8https://video.igem.org/videos/embed/cBu7UTmx71j6d2opwRMtNn23090262020-11-18T14:03:02.603ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/bpkzKeoPmYD2bWdDb1D2wMhttps://video.igem.org/lazy-static/thumbnails/82170111-b452-44e5-ae71-92a10c68e4cc.jpgiGEM 2020: Finalist AnnouncementJoin us for the live announcement of the 7 iGEM 2020 Finalists! We will play the finalists' presentation videos following the announcement and will have highlights from those teams throughout the day. Long time iGEM community member, Kristin Ellis, will announce the finalists.https://static.igem.org/peertube/streaming-playlists/hls/543d8f9f-ddd4-40d8-aa0c-cca9d730bf65/ce00deb0-e851-438c-8d6c-8e900b95cbcc-master.m3u8https://video.igem.org/videos/embed/bpkzKeoPmYD2bWdDb1D2wM139804262020-11-19T19:50:13.558ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/g5USvsf4owEGfdbtD65N6Phttps://video.igem.org/lazy-static/thumbnails/2f86bb44-5b58-4cc5-b9ae-0a123a891411.jpgLeiden: Rapidemic (2020) - Project Promotion [English]**Disclaimer:** This video has been updated by team Leiden to address concerns raised by community members. **Title:** Rapidemic: A novel modular point-of-care diagnostic tool for rapid epidemic response **Abstract:** The Corona virus that is currently raging through the world will definitely not be the last virus that has the potential of becoming a pandemic. As a means to respond rapidly to a future epidemic and thereby preventing its disastrous effects, team iGEM leiden developed Rapidemic: a quick, modular, point-of-care diagnostic kit. [Wiki](https://2020.igem.org/Team:Leiden) | [Presentation](https://video.igem.org/videos/watch/c3dde37c-4585-4eac-83ad-acffd6937121) **Credits:** Animation icons: “Virus” by Ayub Irawan (Noun Project); Vecteezy.com Stock videos: Pexels Shot videos: C.C. Ellerman (Leiden University) Sound effects: Zapsplat.com Music (YouTube Audio Library): “Stark Goes Dark” by The Whole other; “Birds” by Corbin Kytes [Instagram](https://www.instagram.com/igemleiden) | [Facebook](https://www.facebook.com/igemleiden) | [Twitter](https://twitter.com/igem_leiden) | [LinkedIn](https://www.linkedin.com/in/igem-leiden) | [Youtube](https://www.youtube.com/channel/UCfEzpiBJ3NTQRGyslWHxzAg) **Statement:** *“Dear members of the iGEM community,* *A brief moment ago, we were notified by the RCC that some members of the community felt misrepresented as a result of an unintended miscommunication in our video. In our video, we touched upon the sensitive topic of the origins of the COVID-19 pandemic.* *Because we aim to include every part of the iGEM community, we have taken immediate action to revise our deliverables, including our promotional video. It was never our intention to disrespect any member of the community. We are proud members of the iGEM community and highly praise iGEM’s focus on inclusivity. We sincerely appreciate iGEM for informing us about this misunderstanding and want to thank the RCC for giving us the oppor...https://static.igem.org/peertube/streaming-playlists/hls/7a28a345-bda9-4728-aa0b-2974a5924199/c61a61af-7f93-4e46-8fcb-f1b821e84bf1-master.m3u8https://video.igem.org/videos/embed/g5USvsf4owEGfdbtD65N6P119015102020-11-20T23:12:02.261ZEuropeDiagnosticsNetherlandsYES2020 Project PromotionsNOhttps://video.igem.org/w/ewh9NW1YzLprtnu7AhWoeDhttps://video.igem.org/lazy-static/thumbnails/9f3f8b4d-496b-4087-bc54-01ebcfd45492.jpgWelcome to Contribution Day (Asia Pacific - APAC)Welcome to Contribution Day (Asia Pacific - APAC)https://static.igem.org/peertube/streaming-playlists/hls/6d8111d3-53f1-491b-b454-222dec01735f/98644cb2-e43c-4cc4-90d4-1b260d240966-master.m3u8https://video.igem.org/videos/embed/ewh9NW1YzLprtnu7AhWoeD240032020-11-21T00:05:42.346ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/vCUGK1WqeQTUc9DQATp2b3https://video.igem.org/lazy-static/thumbnails/479679a7-5d7c-41b9-9095-639da73ec536.jpgWelcome to Contribution Day (Europe, Middle East, Africa - EMEA)Welcome to Contribution Day (Europe, Middle East, Africa - EMEA)https://static.igem.org/peertube/streaming-playlists/hls/f00046a0-f9e3-470c-9c4e-51cef02fa0f2/aedcdcb9-c952-48e4-a527-1a75e185de3b-master.m3u8https://video.igem.org/videos/embed/vCUGK1WqeQTUc9DQATp2b3243072020-11-21T00:06:42.004ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/qDPjn6aiWNbPLKdLienn62https://video.igem.org/lazy-static/thumbnails/ed4f526d-fea2-46da-a17b-7ec2a16dd5e9.jpgWelcome to Contribution Day (Americas)Welcome to Contribution Day (Americas)https://static.igem.org/peertube/streaming-playlists/hls/c7a301d9-c3f3-43d4-b4f7-4bde363e93cf/e867ca7e-65a0-4f3a-9b1e-d6de6718e525-master.m3u8https://video.igem.org/videos/embed/qDPjn6aiWNbPLKdLienn62242022020-11-21T00:07:57.470ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/qbPfU5CtxTCWzzqAHgTWz8https://video.igem.org/lazy-static/thumbnails/acbe6b20-382a-4e5e-b423-c5942227b011.jpgLeiden: Rapidemic (2020) - Team Presentation [English]**Disclaimer:** This video has been updated by team Leiden to address concerns raised by community members. **Title:** Rapidemic: A novel modular point-of-care diagnostic tool for rapid epidemic response **Abstract:** This year's COVID-19 outbreak demonstrated how the world is impacted by a pandemic, causing over one million deaths worldwide and severely damaging the quality of life of billions. Rapid diagnostics are vital to keep an outbreak under control and reduce the need for disrupting measures. Here, we present an innovative, modular technique called Rapidemic that allows for the rapid detection of nucleic acids of pathogenic species in a future outbreak. By combining targeted amplification (RPA), nickase-based GQ DNAzyme generation (LSDA), and DNAzyme-catalyzed oxidation, our method reliably and rapidly detects pathogenic DNA or RNA and provides the user with a simple colorimetric output. Because it does not require a lab or external power source, our technology enables point-of-care testing in both high- and low-resource areas. This way, Rapidemic offers a global solution to a global problem and allows us to be one step ahead in tackling Disease X! [Wiki](https://2020.igem.org/Team:Leiden) | [Project Promotion](https://video.igem.org/videos/watch/7a28a345-bda9-4728-aa0b-2974a5924199) **Statement:** *“Dear members of the iGEM community,* *A brief moment ago, we were notified by the RCC that some members of the community felt misrepresented as a result of an unintended miscommunication in our video. In our video, we touched upon the sensitive topic of the origins of the COVID-19 pandemic.* *Because we aim to include every part of the iGEM community, we have taken immediate action to revise our deliverables, including our promotional video. It was never our intention to disrespect any member of the community. We are proud members of the iGEM community and highly praise iGEM’s focus on inclusivity. We sincerely appreciate iGEM for informing...https://static.igem.org/peertube/streaming-playlists/hls/c3dde37c-4585-4eac-83ad-acffd6937121/5a7c1081-c67e-48cc-9922-6c615864fb00-master.m3u8https://video.igem.org/videos/embed/qbPfU5CtxTCWzzqAHgTWz891709842020-11-21T00:31:30.446ZNetherlandsDiagnosticsEuropeYES2020 Team PresentationsNOhttps://video.igem.org/w/vrs8tVKXzh8KPWNri3G5U7https://video.igem.org/lazy-static/thumbnails/6db6c9e2-bfee-4cdc-bf1c-f226d799160c.jpgContribution Workshops: Innovation Sustainability - Case StudyThe Innovation & Sustainability case study looks at team Imperial 2014 and asks: how can an iGEM team pursue sustainability through entrepreneurship? In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/ee66b7cb-c004-4f4a-ac8b-0951c2977f9e/c6881db3-768a-48d6-9f72-b5aabf8a2165-master.m3u8https://video.igem.org/videos/embed/vrs8tVKXzh8KPWNri3G5U71527012020-11-21T15:19:40.012ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/b4mNVJmZXgBnbgK5zp47dXhttps://video.igem.org/lazy-static/thumbnails/7d764eac-2e7c-48b1-b29a-f7f36ea547c2.jpgContribution Day: Governance Keynote (Margaret Hamburg)In the Governance pillar, we look at our ‌collective‌ ‌responsibility‌ ‌to‌ ‌promote‌ ‌safe‌ ‌and‌ ‌ethical‌ ‌use‌ ‌of‌ ‌our‌ ‌technology‌. Margaret Hamburg, the chair of the WHO committee on Developing global standards for governance and oversight of human genome editing, will present her perspective on the next 10 years of synthetic biology governance.https://static.igem.org/peertube/streaming-playlists/hls/51737124-2f58-4247-8ec2-1d3a6e5ca1cf/184e43a0-7719-4dc8-896b-147df8f1a78c-master.m3u8https://video.igem.org/videos/embed/b4mNVJmZXgBnbgK5zp47dX2257042020-11-21T15:25:52.539ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/a7Ts5YJe7wyQRJdoVdpfU4https://video.igem.org/lazy-static/thumbnails/c0bdfe32-35cd-4515-be28-aa5a66d047f6.jpgContribution Day: Wrap-Up ConclusionsAfter the workshops, we will come back together to reflect on the outcomes of the workshops and hear a charge from our keynote speakers for the next 10 years of SynBio.https://static.igem.org/peertube/streaming-playlists/hls/49d86ae7-baa3-4971-b6e7-04c9fabc1fbb/97de36ad-f5b0-4fd8-be63-c426b5081b67-master.m3u8https://video.igem.org/videos/embed/a7Ts5YJe7wyQRJdoVdpfU4111501462020-11-21T15:34:23.363ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/1oK21gugn1td83YNgifAKahttps://video.igem.org/lazy-static/thumbnails/b4a4645b-d6b7-4d81-9340-28b183873cec.jpgContribution Day: Accessibility Keynote (Ellen Jorgensen)In the Accessibility pillar, we look at making‌ ‌sure‌ ‌that‌ ‌the‌ ‌tools‌ ‌we‌ ‌create‌ ‌and‌ ‌the‌ ‌community‌ ‌we‌ ‌build‌ are for the many, not the few.‌ Ellen Jorgensen, the CSO and co-founder of Aanika Biosciences, and co-founder of Biotech Without Borders and Genspace NYC, will present her perspective on the next 10 years of accessible and open synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/032cdf90-f8c1-4e6a-a89f-f18e10b1a4af/63b139d4-bf49-4ddd-b7b7-7aba99837dd9-master.m3u8https://video.igem.org/videos/embed/1oK21gugn1td83YNgifAKa2053032020-11-21T15:41:24.971ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/wwgRPEMerXpFaF2mm98noPhttps://video.igem.org/lazy-static/thumbnails/4a5a81af-944e-400c-936b-d05995e22fdc.jpgContribution Workshops: Governance Sustainability - Case StudyThe Governance & Sustainability case study looks at team Bielefeld-CeBiTec 2018, who realized there were serious dual-use issues lurking in their e-waste recycling project. In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/f72c3f11-13bd-4e33-8b7f-93ac5fef65b7/242ec7d0-2583-4242-8973-e37c9f7b5c08-master.m3u8https://video.igem.org/videos/embed/wwgRPEMerXpFaF2mm98noP2237032020-11-21T15:49:08.085ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/czDa8ydNXft6RaUmooU5PAhttps://video.igem.org/lazy-static/thumbnails/a5154b1c-2cf7-4459-a4b7-d12e4586678a.jpgContribution Workshops: Innovation Accessibility - Case StudyThe Innovation & Accessibility case study looks at teams UGA and Lambert 2018, who helped to create an ultra low-cost electroporator in collaboration with a frugal science lab. In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/5dc6f7ff-83ad-4023-8bdf-c946057c5898/e41e45a5-9b56-4dba-aaa0-f8dc47d95355-master.m3u8https://video.igem.org/videos/embed/czDa8ydNXft6RaUmooU5PA1389022020-11-21T15:57:04.590ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/f2bDM6G9HJGhEma8typs9ghttps://video.igem.org/lazy-static/thumbnails/2c29e5c4-3e8f-4930-921f-a3825843e593.jpgContribution Workshops: Sustainability Knowledge - Case StudyThe Sustainability & Knowledge case study looks at the Conservation X Labs DNA Barcode Scanner, and asks: how can biological data (like that from a portable DNA sequencer) enable conservation efforts? In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/718a3fc6-f4ef-4d09-bedc-db3b7c9a953f/62219ef8-1762-4176-89ff-755ff8ba5f05-master.m3u8https://video.igem.org/videos/embed/f2bDM6G9HJGhEma8typs9g1350002020-11-21T16:02:08.946ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/p9xajEk1tirceL6tC5QoZEhttps://video.igem.org/lazy-static/thumbnails/6c0cf6cb-85be-48e5-86db-16d3f97bb9d8.jpgContribution Workshops: Accessibility Knowledge - Case StudyThe Accessibility & Knowledge case study looks at teams Paris-Bettencourt 2013 and Imperial 2014, who used data to understand and improve diversity and accessibility. In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/bb7357c2-c23c-425e-b6ab-1bea3c01f3a8/728030d9-08b0-420c-b610-0659ea2c2420-master.m3u8https://video.igem.org/videos/embed/p9xajEk1tirceL6tC5QoZE1767012020-11-21T16:07:01.961ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/pkEkEuSUp3uNAbyDUYnbzGhttps://video.igem.org/lazy-static/thumbnails/ebe4971b-1abe-49e5-b622-13f390a92a32.jpgContribution Workshops: Knowledge Governance - Case StudyThe Knowledge & Governance case study looks at experimentation in biosecurity and asks: how do we create knowledge about biosecurity governance? In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/bd00f2b5-26d8-4d7c-b4a8-e9743a147d92/ce2d0fe3-2e1f-49e0-9393-b23d6048bf17-master.m3u8https://video.igem.org/videos/embed/pkEkEuSUp3uNAbyDUYnbzG2301012020-11-21T16:13:31.651ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/vz9JeZtEx2nR1cxAZ4wWgmhttps://video.igem.org/lazy-static/thumbnails/04c72e7a-b1b3-4457-9275-bdc214cc3c55.jpgContribution Workshops: Knowledge Innovation - Case StudyThe Knowledge & Innovation case study looks at AddGene, and asks: how do we create digital systems for openly sharing biological knowledge and tools? In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/ef79f1ce-4731-4020-a1d7-d37dc211d292/bc6a85a3-056e-49d5-a5ef-cf7f2b008ce7-master.m3u8https://video.igem.org/videos/embed/vz9JeZtEx2nR1cxAZ4wWgm2306032020-11-21T16:21:46.542ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/hQC75sGnqiTLNowPUVtoz9https://video.igem.org/lazy-static/thumbnails/e0a944b5-a6d2-49a7-a834-f3c933e93cd8.jpgContribution Workshops: Governance Innovation - Case StudyThe Governance & Innovation case study looks at team São Carlos 2019 and asks: what policies apply to a team releasing a balloon filled with bacteria into the stratosphere? In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/885c2b7d-16ec-47be-b33b-9764f5ea7e62/7d9697c1-d422-4f8d-a3c9-1cf9e9a232c7-master.m3u8https://video.igem.org/videos/embed/hQC75sGnqiTLNowPUVtoz92173032020-11-21T16:30:00.042ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/kFJwSJZ2V95z4JpkRDEBAHhttps://video.igem.org/lazy-static/thumbnails/b7e1cc5f-700b-46df-b865-cfe894abb6bd.jpgContribution Day: Innovation Keynote (Mary Maxon)In the Innovation pillar, we look at the development of applied biotechnology solutions that address unmet needs and challenges in society. Mary Maxon, a leader with the Global Bioeconomy Summit and the National Bioeconomy Blueprint, will present her perspective on the next 10 years of synthetic biology innovation.https://static.igem.org/peertube/streaming-playlists/hls/9f69da61-3ebd-4e40-9333-0e52523360e9/c3d9ee24-dcae-40e2-9b35-5ae59f18e889-master.m3u8https://video.igem.org/videos/embed/kFJwSJZ2V95z4JpkRDEBAH1416092020-11-21T16:37:44.894ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/pgXkZC7ioFcfXn51mqUGdYhttps://video.igem.org/lazy-static/thumbnails/23d8f75d-91fe-49d9-bbe4-77abf3b865dc.jpgContribution Day: Sustainability Keynote (Liz Bennett)In the Sustainability pillar, we look at the development of synthetic biology projects that help us build a society that meets the needs of all people within the means of the planet. Elizabeth Bennett, the Vice President of Species Conservation at the Wildlife Conservation society, will present her perspective on the next 10 years of sustainable synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/bc7c73ff-d577-4674-b515-f62e3e2d7fb0/2ba0210c-1609-4c22-a840-5fee28fae566-master.m3u8https://video.igem.org/videos/embed/pgXkZC7ioFcfXn51mqUGdY14850102020-11-21T16:43:15.129ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/89AwtdKDV2bHPaNeAwzErphttps://video.igem.org/lazy-static/thumbnails/dd136755-d599-48d8-aecc-0d710358b9a1.jpgContribution Workshops: Accessibility Governance - Case StudyThe Accessibility & Governance case study looks at FreeGenes, and asks: how can we create standards that let us freely and openly share biological parts and materials? In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/39e332a1-34ba-4a3f-aef4-9030fc7906a1/3100807b-1974-4e05-90a2-5618b8f032b7-master.m3u8https://video.igem.org/videos/embed/89AwtdKDV2bHPaNeAwzErp2480022020-11-21T16:48:58.723ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/dkeTmxHQUcksfcwV1kdfLDhttps://video.igem.org/lazy-static/thumbnails/cf0e5166-2d32-4a03-b613-fb4a8bfd57df.jpgContribution Day: Knowledge Keynote (Megan Palmer)In the Knowledge pillar, we look at the generation of the ‌collective‌ ‌wisdom,‌ ‌skills‌ ‌and‌ ‌tools‌ ‌of‌ synthetic biology ‌‌that‌ ‌allow‌ ‌us‌ ‌to‌ ‌discover‌ ‌and‌ ‌build‌ new technology.‌ Megan Palmer, Executive Director of Bio Policy &amp; Leadership Initiatives at Stanford University, will present her perspective on the next 10 years of research and data foundations for synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/63dd5a4d-5bb6-4705-8a25-2bdb77dd2165/fd196f11-0110-4f48-a2c3-79fd1f12ecfb-master.m3u8https://video.igem.org/videos/embed/dkeTmxHQUcksfcwV1kdfLD20940162020-11-21T16:57:44.610ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/7H7SRoJjYj5imtDni4HMemhttps://video.igem.org/lazy-static/thumbnails/a3be7b7f-317a-4433-8ad0-921eec8e5c66.jpgContribution Workshops: Sustainability Accessibility - Case StudyThe Sustainability & Accessibility case study looks at team Sumbawagen 2014, who used DIY measurement tools (and survived wiki freeze power outages) to barcode honey using synthetic biology. In each workshop, you will explore a case study that sits at the intersection of two of the five Contribution Day pillars. You’ll hear expert reflections on the case study, discuss their ideas with your peers, contribute to a collaborative draft of a roadmap of the next decade of synthetic biology, and consider how your own career trajectory relates to that roadmap.https://static.igem.org/peertube/streaming-playlists/hls/36549081-ab35-4c9e-a0de-a6e70aa96852/2cdd73e1-48b5-4ec9-a96b-7bb2480ac142-master.m3u8https://video.igem.org/videos/embed/7H7SRoJjYj5imtDni4HMem1626032020-11-21T17:05:22.938ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/nWmHBkN87ifu2XDHnJ4Kpphttps://video.igem.org/lazy-static/thumbnails/de4011ac-f517-4700-a9e5-fc0a30d016ab.jpgAfter iGEM: What happens beyond the competition?After iGEM: What happens beyond the competition?https://static.igem.org/peertube/streaming-playlists/hls/b1a6d7ce-5c51-42ec-b324-6bf693a07951/b126677a-d0db-4679-9a51-a2383dfc8163-master.m3u8https://video.igem.org/videos/embed/nWmHBkN87ifu2XDHnJ4Kpp46001152020-11-24T15:19:44.363ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/ury1J5vVSBMenQy429sALRhttps://video.igem.org/lazy-static/thumbnails/64d272b2-6f78-4be9-b0a9-c14bbb4f9cae.jpgiGEM EPIC Intro - iGEM 2020 Jamboree Closing CeremonyiGEM EPIC Intro - iGEM 2020 Jamboree Closing Ceremonyhttps://static.igem.org/peertube/streaming-playlists/hls/e6513483-fb66-46dd-91c9-567f05a14fe1/387a1b2f-7820-45c2-8844-52477479d3eb-master.m3u8https://video.igem.org/videos/embed/ury1J5vVSBMenQy429sALR2640182020-12-02T14:56:09.062ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/cFa5uYw3NRXieGGNtT7vQvhttps://video.igem.org/lazy-static/thumbnails/a25ffeed-c9b7-48f2-8c4e-2a8ee05bc89e.jpgJamboree Recap: Commentators, Hosts, & Community Week - iGEM 2020 Closing CeremonyJamboree Recap: Commentators, Hosts, & Community Week - iGEM 2020 Closing Ceremonyhttps://static.igem.org/peertube/streaming-playlists/hls/5e8c2065-5950-4868-b05c-a13df1593091/968bd630-fa07-4b47-ae68-3a486afc0912-master.m3u8https://video.igem.org/videos/embed/cFa5uYw3NRXieGGNtT7vQv400052020-12-02T14:57:27.553ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/4V9vKAEMfP5a6UDMuocNS3https://video.igem.org/lazy-static/thumbnails/2b1b3dd2-a67f-44f3-bfc0-a2691e9baafd.jpgInterview with the 2020 Finalists - iGEM 2020 Jamboree Closing CeremonyInterview with the 2020 Finalists - iGEM 2020 Jamboree Closing Ceremonyhttps://static.igem.org/peertube/streaming-playlists/hls/1fb71503-b861-4113-95c4-8a547720ac26/9e35724c-2ccf-4ade-92e9-7589f6672472-master.m3u8https://video.igem.org/videos/embed/4V9vKAEMfP5a6UDMuocNS34990352020-12-02T14:59:16.381ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/nENUKCLa14vuguPYHrEPDRhttps://video.igem.org/lazy-static/thumbnails/80d1716c-6d16-4b65-baf0-b8ca803afb8f.jpgWelcome by iGEM HQ: Nemanja & Dorothy - iGEM 2020 Jamboree Closing CeremonyWelcome by iGEM HQ: Nemanja & Dorothy - iGEM 2020 Jamboree Closing Ceremonyhttps://static.igem.org/peertube/streaming-playlists/hls/af7b158a-3616-4583-aef0-daa76d3366cf/b3abd912-d0b6-4ccd-bd65-df564a5ae037-master.m3u8https://video.igem.org/videos/embed/nENUKCLa14vuguPYHrEPDR273072020-12-02T15:01:19.471ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/5zH9ne3GD4QVyYRhCQDkqXhttps://video.igem.org/lazy-static/thumbnails/b11f3fa4-3f89-4068-ac04-f58864645caa.jpgMedals Speech by Terry Johnson - iGEM 2020 Closing CeremonyMedals Speech by Terry Johnson - iGEM 2020 Closing Ceremonyhttps://static.igem.org/peertube/streaming-playlists/hls/25197480-b769-4ad7-9128-9bf26d54671b/878465f6-5a1d-4abd-8cbd-d4552f46e265-master.m3u8https://video.igem.org/videos/embed/5zH9ne3GD4QVyYRhCQDkqX109052020-12-02T15:02:37.354ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/nRDqvvErcJ9kphkHHtwwnXhttps://video.igem.org/lazy-static/thumbnails/03ecb5cc-b52c-4b07-aeb0-9cda0eb48a7e.jpgPresident's Message: Randy Rettberg - iGEM 2020 Jamboree Closing CeremonyPresident's Message: Randy Rettberg - iGEM 2020 Jamboree Closing Ceremonyhttps://static.igem.org/peertube/streaming-playlists/hls/b0fe6b47-de5a-4e9b-913e-8f1840c1b0f1/726663ab-5796-470b-96f0-396cc2a58fb1-master.m3u8https://video.igem.org/videos/embed/nRDqvvErcJ9kphkHHtwwnX6750652020-12-02T15:09:20.503ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/x2fTPWT1zjj1PWiYzddf3Ghttps://video.igem.org/lazy-static/thumbnails/34f89bc8-f430-400a-ab4f-08f76a97e05f.jpgiGEM TV LIVE: Community Week 1/12 - Hosted by Ryo (Tue, Nov 17)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/fb383880-b6f7-4d12-8cf6-f51fd0539554/8b128711-c13f-4ecf-a7ec-f4cdf430acee-master.m3u8https://video.igem.org/videos/embed/x2fTPWT1zjj1PWiYzddf3G5587012020-12-04T22:26:28.979ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/mwhj7pjCzrA1uxnvWWHQpihttps://video.igem.org/lazy-static/thumbnails/cf9b6806-eebf-4bc2-80eb-06b7f5f8bc3e.jpgiGEM TV LIVE: Community Week 2/12 - Hosted by Uttara (Tue, Nov 17)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/a631239a-bb21-4a9a-bd38-2986c73c064f/9541a24f-41cd-44b8-b0e2-4c94a4b7e932-master.m3u8https://video.igem.org/videos/embed/mwhj7pjCzrA1uxnvWWHQpi41860602020-12-04T22:46:57.625ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/1SchftS2Dcjj8s9CwcKCvChttps://video.igem.org/lazy-static/thumbnails/c2bf5ed9-dce6-4042-8ebd-93511dce13b5.jpgiGEM TV LIVE: Community Week 3/12 - Hosted by Henrique (Tue, Nov 17)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/070223e0-d8dd-439a-a290-2c33b32e69ee/76e32d7e-1a41-4c30-ba27-a6396198cdf9-master.m3u8https://video.igem.org/videos/embed/1SchftS2Dcjj8s9CwcKCvC5249022020-12-04T23:05:03.777ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/hYhbXaKwn1ZeCJhfQ4JfMXhttps://video.igem.org/lazy-static/thumbnails/9e443f26-293e-497d-8b33-ef2aeb28f077.jpgiGEM TV LIVE: Community Week 4/12 - Hosted by Heber (Tue, Nov 17)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/896dd8ad-0ca1-4ae2-8b86-be4854598fa1/c898997f-6b76-40c6-8455-3b6d209bcec4-master.m3u8https://video.igem.org/videos/embed/hYhbXaKwn1ZeCJhfQ4JfMX4487022020-12-04T23:27:07.427ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/6ZWTd1MmnpfoRGhSUwWQtghttps://video.igem.org/lazy-static/thumbnails/ef6bb9fd-f68c-461e-973b-00edb3dc9ac7.jpgiGEM TV LIVE: Community Week 5/12 - Hosted by Hana (Wed, Nov 18)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/3094e935-2949-4054-bdd4-abb2fdbf683d/f17a9364-0af7-4750-b3e0-3d2c668a29c1-master.m3u8https://video.igem.org/videos/embed/6ZWTd1MmnpfoRGhSUwWQtg4743032020-12-04T23:47:21.591ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/n2DsXRNWSyJveoeUStGC45https://video.igem.org/lazy-static/thumbnails/c663199e-81cd-4154-bd54-12f169d36e09.jpgiGEM TV LIVE: Community Week 6/12 - Hosted by Ricardo & Carolina (Wed, Nov 18)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/aa4abe82-c4db-443a-8126-f8f52cf90372/62fe2d28-b0d8-4a06-a993-dccdd4d2b81f-master.m3u8https://video.igem.org/videos/embed/n2DsXRNWSyJveoeUStGC4559210112020-12-05T00:07:21.114ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/x4YyAZUJ2BiYqM8XP2oDPxhttps://video.igem.org/lazy-static/thumbnails/70a299ca-e158-4566-b75a-32574214f7a7.jpgiGEM TV LIVE: Community Week 7/12 - Hosted by Nannan (Wed, Nov 18)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/fb99632d-ed28-4c3e-8fcc-bb6e1d1f6c19/eea26320-8bfb-4a64-9ae5-bf7ee250265d-master.m3u8https://video.igem.org/videos/embed/x4YyAZUJ2BiYqM8XP2oDPx4502032020-12-05T00:32:57.800ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/aCFnYDmEA5rTCX5LRgRUPBhttps://video.igem.org/lazy-static/thumbnails/7ab63773-dd23-4794-8dfb-91e3c939621c.jpgiGEM TV LIVE: Community Week 8/12 - Hosted by Varsha (Thu, Nov 19)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/4e014ab1-af82-4b90-9485-e5f0bb678f51/f0cc365d-0eea-4855-889e-34235a78d2a6-master.m3u8https://video.igem.org/videos/embed/aCFnYDmEA5rTCX5LRgRUPB7017052020-12-05T00:52:25.858ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/q1i2HhaTaoUWLNwP47MXRVhttps://video.igem.org/lazy-static/thumbnails/548b3dcb-ee7e-4c4c-b1d6-c7abc1821e11.jpgiGEM TV LIVE: Community Week 10/12 - Hosted by Athina (Fri, Nov 20)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/c265d299-27fb-49b3-b130-b37c6a7f6513/7466ce37-4795-4b16-af39-4d46b369343f-master.m3u8https://video.igem.org/videos/embed/q1i2HhaTaoUWLNwP47MXRV6715032020-12-05T01:22:56.295ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/oJMKxzMJQfkGx3J6UoU52fhttps://video.igem.org/lazy-static/thumbnails/9e3c887c-2f22-4bcc-8861-6b1faea2d408.jpgiGEM TV LIVE: Community Week 11/12 - Hosted by Marjolein (Fri, Nov 20)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/b8227bd8-7da5-4611-adfa-bfb4c48c0118/48d1fe9d-2ed9-4098-80c7-abba0e31005f-master.m3u8https://video.igem.org/videos/embed/oJMKxzMJQfkGx3J6UoU52f2469032020-12-05T01:52:17.595ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/6SEEAiriZGdYzS5ScDcvy5https://video.igem.org/lazy-static/thumbnails/f09fb95c-43cc-42ef-ac64-595e9b2cc154.jpgiGEM TV LIVE: Community Week 12/12 - Hosted by Carolina (Fri, Nov 20)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/2f90b5ce-5cda-4a71-9979-3caadd7e83c0/34b58e3a-4a23-4b34-8292-b26ad3638f90-master.m3u8https://video.igem.org/videos/embed/6SEEAiriZGdYzS5ScDcvy59405032020-12-05T02:03:15.066ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/nM7LF7Twek472PJQmBFQqnhttps://video.igem.org/lazy-static/thumbnails/62cac037-168f-4275-bf59-bd717cdeb42c.jpgiGEM TV LIVE: Community Week 9/12 - Hosted by Henrique (Thu, Nov 19)The Virtual Giant Jamboree was home to a new program: iGEM TV LIVE! With the support of our After iGEM Coordinator and LIVE TV Host Guilherme - Our hosts and commentators were livestreaming for 56 hours during the Jamboree! During the Community Week (November 17-20) – the hosts, who are members of the iGEM Community as Ambassadors, committee members, and alumni, helped navigate the participants of the Jamboree to more than 150 sessions. They hosted panels, chats with iGEMers, and shared their iGEM experience with everyone watching. The iGEM TV Live was also home to many other sessions happening in parallel – which you will be able to watch on demand shortly after the Jamboree. As we celebrate our 2020 achievements, enjoy rewatching iGEM TV Live! https://2020.igem.org/Giant_Jamboree Hosts: Tuesday, Nov 17 1/12: Ryo Niwa (iGEM Ambassador to Asia) 2/12: Uttara Jayashankar (After iGEM Communications Committee) 3/12: Henrique Retti (iGEM Ambassador to Latin America) 4/12: Heber Torres (iGEM Ambassador to Latin America) Wednesday, Nov 18 5/12: Hana Abdelzaher (iGEM Ambassador To Africa Emeritus) 6/12: Ricardo Camilo Chavez (After iGEM Coordinator) & Carolina Elizondo (iGEM Ambassador To Europe) 7/12: Nannan Jiang (After iGEM Communications Committtee) Thursday, Nov 19 8/12: Varsha Jaisimha (iGEM Ambassador to Asia) 9/12: Henrique Retti (iGEM Ambassador to Latin America) Friday, Nov 20 10/12: Athina Milona (iGEM Ambassador To Europe) 11/12: Marjolein Crooijmans (iGEM EPIC, VRT Committee) 12/12: Carolina Elizondo (iGEM Ambassador To Europe)https://static.igem.org/peertube/streaming-playlists/hls/b05c8dc7-6b9c-4fd2-9250-d4afdd7f400d/e155842d-4f21-462c-8776-599404941102-master.m3u8https://video.igem.org/videos/embed/nM7LF7Twek472PJQmBFQqn3466082020-12-05T13:16:02.877ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/8afhotZ5cgY9U2gRaTf7Z4https://video.igem.org/lazy-static/thumbnails/fee8c11f-3cd9-4f43-8c3c-0f0b6cb1e1e8.jpgiGEM TV Live: Commentator Show 1/6 - Hosted by Varsha (VGJ - Sat, Nov 14)iGEM 2020 Virtual Giant Jamboree presents: iGEM TV LIVE Commentators! Every year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. Every attendee experiences a unique journey during the Jamboree. The Jamboree Commentators aided the attendees in navigating through the extraordinary works presented in the competition. They selected and shared highlights of the journey, inviting the community to be dazzled with them. They are iGEM alumni applying their passion and expertise in Synthetic Biology and were live during 24 hours throughout the Competition Weekend (November 14-16), broadcasting 15-minute sessions in different languages. Check out the schedule and find the commentators that will discuss topics that you are interested in! https://2020.igem.org/Giant_Jamboree/Commentators The commentators were supported by our passionate hosts – also members of the iGEM Community as ambassadors, committee members and alumni. Hosts: Saturday, Nov 14 1/6: Hosted by Varsha Jaisimha (iGEM Ambassador to Asia) 2/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) Sunday, Nov 15 3/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) 4/6: Hosted by Nerea Capon Lamelas (iGEM Ambassador to Europe) Monday, Nov 16 5/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) 6/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) Commentators: Abril Diosdado Hernández Alex Kelly Aliya Kaimoldiyeva Benjamín Mendoza Catherine Ryan Cibele Zolnier Craig Macaulay Trester Gabriel Borel Héber Torres Henrique D'Ambrosio Retti Irving Francisco Jimmy Gledson Hayden Pontes Linhares Jinwei Xu Kauan Ribeiro Luna Eresta Jaya Maarten Lubbers Nathan Ribeiro Paulo Freire Ricardo Camilo Chavez Ryo Niwa Sankalpa Venkatraghavan Sarah Liu Shanlin Tong Sophie Liu Stefan Zaharievski Note: Commentators views are their own and do not necessarily represent iGEM Foundation's official stance on topics.https://static.igem.org/peertube/streaming-playlists/hls/39fa776b-502e-415b-b270-71e1bb204f85/08d21354-69c3-40d8-a79a-97b4bebf808d-master.m3u8https://video.igem.org/videos/embed/8afhotZ5cgY9U2gRaTf7Z4133450222020-12-05T17:01:54.646ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/7BEZixGgX8uJVqySDbEHLKhttps://video.igem.org/lazy-static/thumbnails/f493ee5d-e17f-435f-a328-0064239d52d1.jpgiGEM TV Live: Commentator Show 2/6 - Hosted by Carolina (Sat, Nov 14)iGEM 2020 Virtual Giant Jamboree presents: iGEM TV LIVE Commentators! Every year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. Every attendee experiences a unique journey during the Jamboree. The Jamboree Commentators aided the attendees in navigating through the extraordinary works presented in the competition. They selected and shared highlights of the journey, inviting the community to be dazzled with them. They are iGEM alumni applying their passion and expertise in Synthetic Biology and were live during 24 hours throughout the Competition Weekend (November 14-16), broadcasting 15-minute sessions in different languages. Check out the schedule and find the commentators that will discuss topics that you are interested in! https://2020.igem.org/Giant_Jamboree/Commentators The commentators were supported by our passionate hosts – also members of the iGEM Community as ambassadors, committee members and alumni. Hosts: Saturday, Nov 14 1/6: Hosted by Varsha Jaisimha (iGEM Ambassador to Asia) 2/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) Sunday, Nov 15 3/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) 4/6: Hosted by Nerea Capon Lamelas (iGEM Ambassador to Europe) Monday, Nov 16 5/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) 6/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) Commentators: Abril Diosdado Hernández Alex Kelly Aliya Kaimoldiyeva Benjamín Mendoza Catherine Ryan Cibele Zolnier Craig Macaulay Trester Gabriel Borel Héber Torres Henrique D'Ambrosio Retti Irving Francisco Jimmy Gledson Hayden Pontes Linhares Jinwei Xu Kauan Ribeiro Luna Eresta Jaya Maarten Lubbers Nathan Ribeiro Paulo Freire Ricardo Camilo Chavez Ryo Niwa Sankalpa Venkatraghavan Sarah Liu Shanlin Tong Sophie Liu Stefan Zaharievski Note: Commentators views are their own and do not necessarily represent iGEM Foundation's official stance on topics.https://static.igem.org/peertube/streaming-playlists/hls/3591e41f-52d6-461c-9ecd-a8a72698c417/61036090-9066-469c-bc66-e01f8da05a3d-master.m3u8https://video.igem.org/videos/embed/7BEZixGgX8uJVqySDbEHLK14613092020-12-05T17:59:10.982ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/teRsjw8afUx552g5gApSe3https://video.igem.org/lazy-static/thumbnails/fe16d7eb-03df-458e-b95b-8bd3151d93bc.jpgiGEM TV Live: Commentator Show 3/6 - Hosted by Guilherme (VGJ - Sun, Nov 15)iGEM 2020 Virtual Giant Jamboree presents: iGEM TV LIVE Commentators! Every year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. Every attendee experiences a unique journey during the Jamboree. The Jamboree Commentators aided the attendees in navigating through the extraordinary works presented in the competition. They selected and shared highlights of the journey, inviting the community to be dazzled with them. They are iGEM alumni applying their passion and expertise in Synthetic Biology and were live during 24 hours throughout the Competition Weekend (November 14-16), broadcasting 15-minute sessions in different languages. Check out the schedule and find the commentators that will discuss topics that you are interested in! https://2020.igem.org/Giant_Jamboree/Commentators The commentators were supported by our passionate hosts – also members of the iGEM Community as ambassadors, committee members and alumni. Hosts: Saturday, Nov 14 1/6: Hosted by Varsha Jaisimha (iGEM Ambassador to Asia) 2/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) Sunday, Nov 15 3/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) 4/6: Hosted by Nerea Capon Lamelas (iGEM Ambassador to Europe) Monday, Nov 16 5/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) 6/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) Commentators: Abril Diosdado Hernández Alex Kelly Aliya Kaimoldiyeva Benjamín Mendoza Catherine Ryan Cibele Zolnier Craig Macaulay Trester Gabriel Borel Héber Torres Henrique D'Ambrosio Retti Irving Francisco Jimmy Gledson Hayden Pontes Linhares Jinwei Xu Kauan Ribeiro Luna Eresta Jaya Maarten Lubbers Nathan Ribeiro Paulo Freire Ricardo Camilo Chavez Ryo Niwa Sankalpa Venkatraghavan Sarah Liu Shanlin Tong Sophie Liu Stefan Zaharievski Note: Commentators views are their own and do not necessarily represent iGEM Foundation's official stance on topics.https://static.igem.org/peertube/streaming-playlists/hls/dc95e3ca-44df-4765-b000-3dfdf7b37594/1bbf50e7-e953-4751-9cc4-eecfded52e35-master.m3u8https://video.igem.org/videos/embed/teRsjw8afUx552g5gApSe3168820242020-12-05T19:18:13.198ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/4zrxSajCqedbXdvHBNUwtAhttps://video.igem.org/lazy-static/thumbnails/ba526625-3290-4e05-aad1-0671c8a44473.jpgiGEM TV Live: Commentator Show 4/6 - Hosted by Nerea (VGJ - Sun, Nov 15)iGEM 2020 Virtual Giant Jamboree presents: iGEM TV LIVE Commentators! Every year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. Every attendee experiences a unique journey during the Jamboree. The Jamboree Commentators aided the attendees in navigating through the extraordinary works presented in the competition. They selected and shared highlights of the journey, inviting the community to be dazzled with them. They are iGEM alumni applying their passion and expertise in Synthetic Biology and were live during 24 hours throughout the Competition Weekend (November 14-16), broadcasting 15-minute sessions in different languages. Check out the schedule and find the commentators that will discuss topics that you are interested in! https://2020.igem.org/Giant_Jamboree/Commentators The commentators were supported by our passionate hosts – also members of the iGEM Community as ambassadors, committee members and alumni. Hosts: Saturday, Nov 14 1/6: Hosted by Varsha Jaisimha (iGEM Ambassador to Asia) 2/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) Sunday, Nov 15 3/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) 4/6: Hosted by Nerea Capon Lamelas (iGEM Ambassador to Europe) Monday, Nov 16 5/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) 6/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) Commentators: Abril Diosdado Hernández Alex Kelly Aliya Kaimoldiyeva Benjamín Mendoza Catherine Ryan Cibele Zolnier Craig Macaulay Trester Gabriel Borel Héber Torres Henrique D'Ambrosio Retti Irving Francisco Jimmy Gledson Hayden Pontes Linhares Jinwei Xu Kauan Ribeiro Luna Eresta Jaya Maarten Lubbers Nathan Ribeiro Paulo Freire Ricardo Camilo Chavez Ryo Niwa Sankalpa Venkatraghavan Sarah Liu Shanlin Tong Sophie Liu Stefan Zaharievski Note: Commentators views are their own and do not necessarily represent iGEM Foundation's official stance on topics.https://static.igem.org/peertube/streaming-playlists/hls/1cf6b4ac-e7cd-4e8d-aa45-99e09a851918/1e47a9ae-8f4f-46c6-a7ea-bc84882f6146-master.m3u8https://video.igem.org/videos/embed/4zrxSajCqedbXdvHBNUwtA12293052020-12-05T20:30:41.788ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/74dqXmVuxefxqRCsV7EWrLhttps://video.igem.org/lazy-static/thumbnails/f216cbed-506d-44f9-b050-923e81954bf5.jpgiGEM TV Live: Commentator Show 5/6 - Hosted by Carolina (VGJ - Mon, Nov 16)iGEM 2020 Virtual Giant Jamboree presents: iGEM TV LIVE Commentators! Every year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. Every attendee experiences a unique journey during the Jamboree. The Jamboree Commentators aided the attendees in navigating through the extraordinary works presented in the competition. They selected and shared highlights of the journey, inviting the community to be dazzled with them. They are iGEM alumni applying their passion and expertise in Synthetic Biology and were live during 24 hours throughout the Competition Weekend (November 14-16), broadcasting 15-minute sessions in different languages. Check out the schedule and find the commentators that will discuss topics that you are interested in! https://2020.igem.org/Giant_Jamboree/Commentators The commentators were supported by our passionate hosts – also members of the iGEM Community as ambassadors, committee members and alumni. Hosts: Saturday, Nov 14 1/6: Hosted by Varsha Jaisimha (iGEM Ambassador to Asia) 2/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) Sunday, Nov 15 3/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) 4/6: Hosted by Nerea Capon Lamelas (iGEM Ambassador to Europe) Monday, Nov 16 5/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) 6/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) Commentators: Abril Diosdado Hernández Alex Kelly Aliya Kaimoldiyeva Benjamín Mendoza Catherine Ryan Cibele Zolnier Craig Macaulay Trester Gabriel Borel Héber Torres Henrique D'Ambrosio Retti Irving Francisco Jimmy Gledson Hayden Pontes Linhares Jinwei Xu Kauan Ribeiro Luna Eresta Jaya Maarten Lubbers Nathan Ribeiro Paulo Freire Ricardo Camilo Chavez Ryo Niwa Sankalpa Venkatraghavan Sarah Liu Shanlin Tong Sophie Liu Stefan Zaharievski Note: Commentators views are their own and do not necessarily represent iGEM Foundation's official stance on topics.https://static.igem.org/peertube/streaming-playlists/hls/3109b943-5487-436b-8fea-801db82eef5e/f2f1eff0-b4e7-4890-92b4-3db1b2be78ae-master.m3u8https://video.igem.org/videos/embed/74dqXmVuxefxqRCsV7EWrL12027092020-12-05T21:22:34.270ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/3vVAduS9rNSmS2YNCTMNNHhttps://video.igem.org/lazy-static/thumbnails/c14689f0-e946-4c87-92c4-79f6bf2ecad6.jpgiGEM TV Live: Commentator Show 6/6 - Hosted by Guilherme (VGJ - Mon, Nov 16)iGEM 2020 Virtual Giant Jamboree presents: iGEM TV LIVE Commentators! Every year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. Every attendee experiences a unique journey during the Jamboree. The Jamboree Commentators aided the attendees in navigating through the extraordinary works presented in the competition. They selected and shared highlights of the journey, inviting the community to be dazzled with them. They are iGEM alumni applying their passion and expertise in Synthetic Biology and were live during 24 hours throughout the Competition Weekend (November 14-16), broadcasting 15-minute sessions in different languages. Check out the schedule and find the commentators that will discuss topics that you are interested in! https://2020.igem.org/Giant_Jamboree/Commentators The commentators were supported by our passionate hosts – also members of the iGEM Community as ambassadors, committee members and alumni. Hosts: Saturday, Nov 14 1/6: Hosted by Varsha Jaisimha (iGEM Ambassador to Asia) 2/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) Sunday, Nov 15 3/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) 4/6: Hosted by Nerea Capon Lamelas (iGEM Ambassador to Europe) Monday, Nov 16 5/6: Hosted by Carolina Elizondo (iGEM Ambassador to Europe) 6/6: Hosted by Guilherme Kundlatsch (After iGEM Coordinator) Commentators: Abril Diosdado Hernández Alex Kelly Aliya Kaimoldiyeva Benjamín Mendoza Catherine Ryan Cibele Zolnier Craig Macaulay Trester Gabriel Borel Héber Torres Henrique D'Ambrosio Retti Irving Francisco Jimmy Gledson Hayden Pontes Linhares Jinwei Xu Kauan Ribeiro Luna Eresta Jaya Maarten Lubbers Nathan Ribeiro Paulo Freire Ricardo Camilo Chavez Ryo Niwa Sankalpa Venkatraghavan Sarah Liu Shanlin Tong Sophie Liu Stefan Zaharievski Note: Commentators views are their own and do not necessarily represent iGEM Foundation's official stance on topics.https://static.igem.org/peertube/streaming-playlists/hls/145fdf63-8e46-4810-a058-38ff82b02545/fd0d964a-da5d-4ffd-ab3e-c410086a9086-master.m3u8https://video.igem.org/videos/embed/3vVAduS9rNSmS2YNCTMNNH6492062020-12-05T22:13:58.324ZsynbioYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/ivntqG16fPHz2y3a9Q2XD3https://video.igem.org/lazy-static/thumbnails/4c2698f0-9619-485c-be2e-42091bbfe647.jpgOutside Cointainment: Safe, Secure and Responsible Use of Synthetic Biology - Piers Millett talks...Outside Cointainment: Safe, Secure and Responsible Use of Synthetic Biology - Piers Millett talks with Larisa Rudenko https://static.igem.org/peertube/streaming-playlists/hls/8dc528df-fea1-4506-95b0-cf2231d8b888/3ad054b6-869e-4d8e-a1c8-c32aa4cb8c29-master.m3u8https://video.igem.org/videos/embed/ivntqG16fPHz2y3a9Q2XD3877022020-12-07T15:36:13.719ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/vT4aEsGUQkphF31D5QNe7Qhttps://video.igem.org/lazy-static/thumbnails/0c1d4dd2-59eb-4a6d-bc39-ec9b8f92e882.jpgWhat is Next for the European SynBio Ecosystem? - EUSynBioSOur main missions at the European Synthetic Biology Society (EUSynBioS) are to promote and consolidate the field of synthetic biology in Europe. As the European synthetic biology ecosystem is changing and evolving quickly, EUSynBioS wants to create a discussion with people from all around the world, to see what the future holds for European Synbio, and how we can build a better and more inclusive community.https://static.igem.org/peertube/streaming-playlists/hls/f1f9e7a7-7f8a-4eda-9bae-2c2507985050/4dd4c8ea-4a02-4138-9ac4-a789c73c883f-master.m3u8https://video.igem.org/videos/embed/vT4aEsGUQkphF31D5QNe7Q1804032020-12-08T23:12:31.152ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/bfUZYkCFXxfLhA2EAp1WZShttps://video.igem.org/lazy-static/thumbnails/17369c63-a59c-4d3a-8c88-7b26651c2a14.jpgCelebrating and Discussing Mentorship in iGEM - After iGEM Education CommitteeEvery iGEM team knows that some challenges are best addressed by working with a good mentor. We will recognize outstanding mentors from the 2020 After iGEM mentorship program, followed by an interactive discussion where all may share experiences with mentorship and suggest improvements for next year`s program. If you are interested in helping iGEM teams succeed, please come through!https://static.igem.org/peertube/streaming-playlists/hls/53107623-f2b8-4205-ad4c-bcb0c9b84864/a0f01f87-4ea8-4d19-bb34-a39a2b9afcdb-master.m3u8https://video.igem.org/videos/embed/bfUZYkCFXxfLhA2EAp1WZS21440142020-12-08T23:12:20.951ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/t9ja2tgfUvDS8bF51v7sMVhttps://video.igem.org/lazy-static/thumbnails/5d971d00-513e-46bd-b5e5-2e75381c9b46.jpgBeyond an iGEM team: How to stay connected with other local iGEMers after the competition - iGEM ...Have you ever wondered what happens after iGEM? Do you wish to stay connected with other iGEM Alumni? Or perhaps you want to participate actively in the promotion of Synthetic Biology in your local area? Whatever your motivation is, join this Panel Discussion to learn more about the benefits of participating in SynBio Associations and local iGEM Alumni Networkshttps://static.igem.org/peertube/streaming-playlists/hls/dbcfe1fd-50fd-463b-a3ee-50ef76592a4f/edd3dfcc-fce0-41d1-b271-6e2bf780298b-master.m3u8https://video.igem.org/videos/embed/t9ja2tgfUvDS8bF51v7sMV2316042020-12-08T23:12:07.205ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/mbaW5qn15uWJxNTun9Zzkjhttps://video.igem.org/lazy-static/thumbnails/50d78f01-7462-4d1a-9524-4197dd74e049.jpgBioFutures 2020 - iGEM & Hello TomorrowBioFutures 2020 - iGEM & Hello Tomorrowhttps://static.igem.org/peertube/streaming-playlists/hls/a36254f9-2a7f-463b-9cb2-bf44613e2a0c/d89614e6-3366-4a02-a255-862bbbb6970d-master.m3u8https://video.igem.org/videos/embed/mbaW5qn15uWJxNTun9Zzkj2281062020-12-08T23:12:18.399ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/3dCbpkwwGWSpGvvFYQMm1phttps://video.igem.org/lazy-static/thumbnails/bc7f25ef-e37b-46f1-8a6d-c096b7d1d855.jpgKeynote: Janet Standeven - High School iGEM: Reflections and FutureJoin us for a discussion of High School iGEM. What is the shared history, successes, and challenges that High School students and their advisors face? The session will begin with a keynote by Janet Standeven, iGEM advisor to the Lambert_GA team and a member of Human Practices Committee. After the keynote, the meeting will allow attendees to interact and share best practices as well as brainstorm ideas for the future.https://static.igem.org/peertube/streaming-playlists/hls/11f57fb6-6ac7-4312-8d63-f5f94b990b2f/34810c47-c631-4a48-a6fb-1221ebf006a8-master.m3u8https://video.igem.org/videos/embed/3dCbpkwwGWSpGvvFYQMm1p25990462020-12-08T23:12:27.119ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/cW3f7ngLtFiBmxmi6seBoehttps://video.igem.org/lazy-static/thumbnails/325904cb-6d6a-4b80-be76-dadc42452d09.jpgKeynote: Otim Geoffrey - The Founding and Future prospects of SynBio Africa & iGEMKeynote: Otim Geoffrey - The Founding and Future prospects of SynBio Africa & iGEMhttps://static.igem.org/peertube/streaming-playlists/hls/60a01241-10ac-456b-bd28-4504434cebfd/8d92681d-b684-4f57-a3c1-9eef98b75288-master.m3u8https://video.igem.org/videos/embed/cW3f7ngLtFiBmxmi6seBoe27020612020-12-08T23:12:29.044ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/bThLg2siBWccZBAcjgc6QDhttps://video.igem.org/lazy-static/thumbnails/81cb7419-47fa-4f17-8fca-6a072ec7c4ae.jpgContribution Day: Global Keynote Panel - SynBio & Next 10 YearsContribution Day: Global Keynote Panel - SynBio & Next 10 Yearshttps://static.igem.org/peertube/streaming-playlists/hls/5824a644-ef7c-45b0-bb0f-c7a3e37db061/2b471ca0-3ea5-40d3-877b-87e00ec06c94-master.m3u8https://video.igem.org/videos/embed/bThLg2siBWccZBAcjgc6QD3421022020-12-08T23:19:17.745ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/nPQgcJ54ARbrXKHstoWG9Qhttps://video.igem.org/lazy-static/thumbnails/ca5d3fea-a3d2-40a8-bb06-60f10301099c.jpgSame but different: a Global Perspective in the SynBio Industry - After iGEM Industry CommitteeJoin us to get to know the differences in the Synbio industry needs and get a broader perspective into several regions around the worldhttps://static.igem.org/peertube/streaming-playlists/hls/b0bd9c93-c03d-45d5-9d13-c077362f7150/ca66ea36-7247-4d47-8389-2ccc8b864981-master.m3u8https://video.igem.org/videos/embed/nPQgcJ54ARbrXKHstoWG9Q2974092020-12-09T08:51:08.212ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/aNK67E6scNwtwYJQnxGxHRhttps://video.igem.org/lazy-static/thumbnails/97cf9cf6-59ba-4d45-ba82-14dea79b4fef.jpgThe Future of Biological Parts Screening - Safety & Security & Human Practices Committees"Recent advances in data science are transforming biological parts screening. Hear from experts on questions like: Can we tell who engineered DNA? Can we tell if DNA codes for something dangerous? How should we govern sequence synthesis? and discuss how iGEM`s parts should be screened in the future."https://static.igem.org/peertube/streaming-playlists/hls/4f6903f1-1cc3-4ef3-981e-dced72fa7727/287f05dc-b282-458e-96bf-4481b0ae540b-master.m3u8https://video.igem.org/videos/embed/aNK67E6scNwtwYJQnxGxHR28220132020-12-09T08:51:10.399ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/8E1PEvefx8dheWHHBozSCthttps://video.igem.org/lazy-static/thumbnails/8d5eef39-aba3-405a-8d0e-a9a185382905.jpgGood Ideas Need Good Policy! - After iGEM Policy CommitteeThe year of 2020 showed us the importance of having science as a guideline for creating policies! Countries that have early adopted evidence based solutions to fight the coronavirus have been more successful in flatening the pandemic curve and they`ve been recovering their economies faster. The adoption of science and new technologies in many fields of work needs an interdisciplinary approach, combining educators, communicators, scientists and policymakers. In this workshop, we will have Cornell Alliance for Science share some of their experience in working with science based agricultural practices around the world and with creating policy frameworks that embraces technology and sustainability.https://static.igem.org/peertube/streaming-playlists/hls/3dfebd86-0883-4000-97b1-587c665c9373/469a1f39-be00-459d-9058-6d304775014b-master.m3u8https://video.igem.org/videos/embed/8E1PEvefx8dheWHHBozSCt3792052020-12-09T09:25:45.672ZcommunitypolicyYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/xxCWwWbwvQda9DooP8fDDAhttps://video.igem.org/lazy-static/thumbnails/bdf3b336-5e2c-4242-bb45-a79932b907a4.jpgCCiC: from Meet Up to CommunityConference of China iGEMer Community is an annual meet up in China started in 2014. During August 2020, we held the 7th CCiC online, with seventy teams and a thousand iGEMers participated. Beyond iGEM, CCiC also had lectures and workshops from academia and industry, live stream panel discussion, online courses, wiki freeze coffee and other activities. Here, we want to share our progress and experience with the entire iGEM community, and looking forward to collaborate with teams, institutions and communities across the worldhttps://static.igem.org/peertube/streaming-playlists/hls/ff761edc-b704-49ee-8136-ac779f8d7a38/87c0bac7-bd6a-4197-878e-2f27c22023ef-master.m3u8https://video.igem.org/videos/embed/xxCWwWbwvQda9DooP8fDDA13800172020-12-10T09:59:40.591ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/19fr4NLARzhiciHH14Qqhbhttps://video.igem.org/lazy-static/thumbnails/435443f6-1e73-4bd3-b5ee-b6d35a96bd7e.jpgIt Came From A Lab: Responsible Synbio Beyond Containment #1 - Safety & Security Committee Many synthetic biology projects won't realize their full potential unless they move outside of labs or other highly-controlled environments and into the environment. Can we do this safety and responsibly? You can shape iGEM's future policies!https://static.igem.org/peertube/streaming-playlists/hls/0126d823-eeef-45c3-90ae-61a3dbdf1f7a/8d9c08fd-ddc9-48be-98c6-e7d1bb98af4c-master.m3u8https://video.igem.org/videos/embed/19fr4NLARzhiciHH14Qqhb1874032020-12-10T09:59:26.242ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/qwQxjefCYfc2F7LR4mKaNehttps://video.igem.org/lazy-static/thumbnails/6e83aa17-19c5-4cbb-b611-17274c3f3b07.jpgNavigating iGEM and beyond: The Mentorship Network and Eduhall - After iGEM Education CommitteeJoin us in the unveiling of two of our initiatives: the Mentor Network and EduHall. Our flagship Mentorship Program brought together experienced iGEMers to create a positive impact with their unique knowledge. We are taking this program a step further for the benefit of participating iGEM teams by creating a network of past, present and potential mentors. We also envisage EduHall, an initiative focused on curating resources to help teams facing common yet crucial technical and non-technical challenges in iGEM.https://static.igem.org/peertube/streaming-playlists/hls/c6a98e01-ec9f-4174-bf48-60d925a9e3d5/6f70abcc-e7f6-48f3-bc83-3fc466ebc6c1-master.m3u8https://video.igem.org/videos/embed/qwQxjefCYfc2F7LR4mKaNe16900322020-12-10T09:59:23.874ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/16zuiuChPw4Rsr86CWphVDhttps://video.igem.org/lazy-static/thumbnails/78f6a025-0166-46db-9097-c531d81f972e.jpgThe Rise of Synthetic Biology in Africa-Alumni Reunion Time - iGEM AmbassadorsFor the last 10 years, African teams have been participating in iGEM, started small but growing bigger and bigger each year. We have a number of Alumni and friends that are making it possible to grow Synthetic Biology in Africa which has been a new concept. We have always found it challenging to attend the Jambore due many challenges including Visas and Costs involved. However, this year comes with its own blessings and chances, its the for us to discover our Alumni, have a sense of belonging and relate with buddies (the iGEM Community). It will be a session to remember, great experience. We will be joined by the Co-Founder of Synbio Africa.https://static.igem.org/peertube/streaming-playlists/hls/00c75b46-1178-4229-96ce-b84f337b059f/0cd5c3fb-043e-4ea8-b3d4-96f7d2d8e68c-master.m3u8https://video.igem.org/videos/embed/16zuiuChPw4Rsr86CWphVD25550222020-12-10T09:59:21.739ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/qsRiaiTtXsnH81GX5LnsYchttps://video.igem.org/lazy-static/thumbnails/b1c004ef-5850-4710-ad18-84fb55dd0efd.jpgCollaborative Science in the 21st Century - Just One Giant Lab (JOGL)Have you always wanted to build international collaborations to support your iGEM project, but not known how or where to start? Join this workshop to learn the best practices for open science collaborations from Just One Giant Lab (JOGL), an online mobilization platform for collective problem-solving! Come share your successes, failures, and ideas regarding your endeavors in iGEM, and find out how to set up your next scientific collaboration for success. We look forward to shaping the future of open science with you!https://static.igem.org/peertube/streaming-playlists/hls/c61b0ba7-27f6-4bfc-ab8f-0c7f77167aab/1cb9f24e-2959-478b-8ced-2baa3456fcca-master.m3u8https://video.igem.org/videos/embed/qsRiaiTtXsnH81GX5LnsYc2632012020-12-10T09:59:38.136ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/54J8USpNBdxVxkhjbPiK4Fhttps://video.igem.org/lazy-static/thumbnails/77624793-dc0b-4e80-a07e-346deb1c05c1.jpgHow To Successfully Pitch Yourself In Academia - After iGEM Academia CommitteeiGEM is a platform that has inspired many alumni to pursue graduate and academic careers. In this workshop, we aim to reflect on how budding iGEMers might want to approach applying for positions related to academia. The session will explore a range of tips-and-tricks, and we will focus on conveying important considerations and nuances one should contemplate during the decision making process.https://static.igem.org/peertube/streaming-playlists/hls/20e9c0e0-f6ca-4bcf-8d18-0497382e2e39/89f404c8-3710-47d8-9c72-c6b1adc0b140-master.m3u8https://video.igem.org/videos/embed/54J8USpNBdxVxkhjbPiK4F30100132020-12-10T09:59:29.661ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/sLi9fdoT8tSuygvktn6Hhfhttps://video.igem.org/lazy-static/thumbnails/047d3152-c600-4123-8dc5-a92dca9bf1fe.jpgCreative Storytelling in Synthetic Biology - with Ginkgo Bioworks' Grace ChuangWhat if we could grow everything? What does designing with biology really mean? In this talk, Grace Chuang from Ginkgo’s Creative Team shares how navigating the intersections of art, science, society, and identity can help us to envision the future of synthetic biology, and how you can be a part of it too.https://static.igem.org/peertube/streaming-playlists/hls/d8bce530-572d-48c0-9c3e-bee32bbc41aa/5567a573-5927-40d1-a9b0-a998493d3fe1-master.m3u8https://video.igem.org/videos/embed/sLi9fdoT8tSuygvktn6Hhf30840432020-12-10T09:59:35.630ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/qKWMvsnj12sccW29Zqsa26https://video.igem.org/lazy-static/thumbnails/be56e7fe-c5f9-4e0f-b546-c93cbc92b86d.jpgGinkgo Bioworks Challenge: How to make biology easier to engineer?Biology is the best manufacturing platform on the planet. But engineering living cells is hard—evolution is four billion years ahead of us. We want to hear from you: How can we make biology easier to engineer? Submit your team’s idea and selected teams will pitch to a panel of Ginkgo Bioworks judges (and SynBio rockstars!): Christina Agapakis, Patrick Boyle, and Tom Knight! Impress the judges and the audience to win Ginkgo’s prize: DNA synthesis as Twist plasmids and Ginkgo mentorship to make your idea a reality. Join us, and let’s make biology easier and funnier to engineer together. Apply before November 16, 23:59 EST. Visit 2020.igem.org for more info!https://static.igem.org/peertube/streaming-playlists/hls/c87e1279-bd7a-4554-ae3f-0e9b56304533/a6bb54aa-2abc-4b26-838a-5921bacc6c5c-master.m3u8https://video.igem.org/videos/embed/qKWMvsnj12sccW29Zqsa2632530112020-12-10T09:59:33.429ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/2Q9rg9w9LjWEHWc8jrY2omhttps://video.igem.org/lazy-static/thumbnails/00f0ae34-2b68-4055-90a3-28747d6e6bb1.jpgBioinspired Valuation Models - Doughnut Economics Action Lab; iGEM EPICJoin us to explore new sustainable models for valuation that go beyond % growth!https://static.igem.org/peertube/streaming-playlists/hls/0ed209c7-c434-4e7d-b5c2-e20c22d3be04/d0a1849b-ddd9-41b2-9edb-3df2238faf51-master.m3u8https://video.igem.org/videos/embed/2Q9rg9w9LjWEHWc8jrY2om3509042020-12-10T09:59:43.231ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/hSx6G548yF91nNvEZ2zp5jhttps://video.igem.org/lazy-static/thumbnails/373974df-d61f-48a5-b356-7bae02968310.jpgiGEM EPIC: Start-up Showcase 1/8 - Intro to EPIC"Join us as we highlight the top iGEM Biofounders from our global community working on our transition to a sustainable bioeconomy. We will be hosting a day of keynotes, panels, pitch competitions and workshops - celebrating iGEM Biofounders success in challenges of Food, Health and Water."https://static.igem.org/peertube/streaming-playlists/hls/88a0926b-b7df-4c83-8e53-c6d059b2ea0e/20411b33-6e10-4337-9f12-256059957003-master.m3u8https://video.igem.org/videos/embed/hSx6G548yF91nNvEZ2zp5j1652092020-12-12T12:44:09.961ZentrepreneurshipYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/ui86tURsnEThZC3x5BDqe7https://video.igem.org/lazy-static/thumbnails/e5a9792c-5096-4911-91d0-b7e80ffee779.jpgShape iGEM's Code of Responsible Communication #2 - Safety & Security Committee, Human Practices ...iGEM teams are ambassadors for the global synthetic biology community; how you communicate may have a large impact beyond the competition. iGEM is considering introducing a Code of Responsible Communication specifically to address how teams communicate their science. This is your chance to shape that policy!https://static.igem.org/peertube/streaming-playlists/hls/e523e612-0fae-42c9-8dbd-a9e918626290/52febcc1-4c64-4441-b586-f493c6514d14-master.m3u8https://video.igem.org/videos/embed/ui86tURsnEThZC3x5BDqe71885022020-12-12T12:44:07.005ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/pdY2aoJH2EiAdbsTm3PKnnhttps://video.igem.org/lazy-static/thumbnails/c32bae03-5a0f-46ab-9ce2-b420e717e06c.jpgGuidelines to building and managing a SynBio Association - GASB (German Association for Synthetic..."""If you feel something is missing in your community - create that something!“ Synthetic Biology is a fast growing field with an already massive impact on our daily lives. But as big as the accomplishments of individuals may be, in order to flourish, research fields like this need a good infrastructure. In this workshop we will talk about the necessity for national and local organisations, how GASB - the German Association for Synthetic Biology was found and how it is managed today."https://static.igem.org/peertube/streaming-playlists/hls/bc11a353-7023-4607-b9e8-a3928ae3539b/221758e4-2028-44f6-a785-b6a739df9169-master.m3u8https://video.igem.org/videos/embed/pdY2aoJH2EiAdbsTm3PKnn17810202021-04-26T08:53:39.392ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/kMK5T1Xh95QTqrtgwGH1FVhttps://video.igem.org/lazy-static/thumbnails/3c019437-242d-4c52-9c4a-e7e1aac52a15.jpgIt Came From A Lab: Responsible Synbio Beyond Containment #2 - Safety & Security Committee Many synthetic biology projects won't realize their full potential unless they move outside of labs or other highly-controlled environments and into the environment. Can we do this safety and responsibly? You can shape iGEM's future policies!https://static.igem.org/peertube/streaming-playlists/hls/a040a7dd-d8c6-49ef-acd5-5fd86dfabaf3/d25043e7-f43d-4119-bf00-89de22358bab-master.m3u8https://video.igem.org/videos/embed/kMK5T1Xh95QTqrtgwGH1FV2002022020-12-12T12:44:04.936ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/f5cegtio3ogfz7QreHfmUyhttps://video.igem.org/lazy-static/thumbnails/700767a0-ef6a-4584-bb47-daf8830f3ac7.jpgiGEM EPIC: Start-up Showcase 8/8 - Overview, Keynote, & Winner Announcement "Join us as we highlight the top iGEM Biofounders from our global community working on our transition to a sustainable bioeconomy. We will be hosting a day of keynotes, panels, pitch competitions and workshops - celebrating iGEM Biofounders success in challenges of Food, Health and Water."https://static.igem.org/peertube/streaming-playlists/hls/71f5d616-1ac1-4aed-be77-bd859b4f55d8/89e6897c-0f25-40c5-9b72-a5ef192916bd-master.m3u8https://video.igem.org/videos/embed/f5cegtio3ogfz7QreHfmUy20630132020-12-12T12:44:19.088ZentrepreneurshipYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/bGdJoyhBnh3LBp86Xd9pChhttps://video.igem.org/lazy-static/thumbnails/cc5af9a4-a917-4434-b5ef-2a7b32faa898.jpgiGEM EPIC: Start-up Showcase 2/8 - Fireside Founders panel "Join us as we highlight the top iGEM Biofounders from our global community working on our transition to a sustainable bioeconomy. We will be hosting a day of keynotes, panels, pitch competitions and workshops - celebrating iGEM Biofounders success in challenges of Food, Health and Water."https://static.igem.org/peertube/streaming-playlists/hls/5698fba9-df45-4eef-be2a-a01e1dfa9794/2abab799-ac35-4979-a7c5-af725dea2554-master.m3u8https://video.igem.org/videos/embed/bGdJoyhBnh3LBp86Xd9pCh1936072020-12-12T12:44:12.402ZentrepreneurshipYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/t4FBUFhWxuQjoijPHfYQ81https://video.igem.org/lazy-static/thumbnails/ae9414b2-b43c-42bc-99bc-ee60511277ae.jpgiGEM EPIC: Start-up Showcase 3/8 - Venture Cafe"Join us as we highlight the top iGEM Biofounders from our global community working on our transition to a sustainable bioeconomy. We will be hosting a day of keynotes, panels, pitch competitions and workshops - celebrating iGEM Biofounders success in challenges of Food, Health and Water."https://static.igem.org/peertube/streaming-playlists/hls/db2a642a-6a1c-4e51-a489-6a86b87c1656/5c1b79da-9b1c-464f-b96a-09c0bafbd32b-master.m3u8https://video.igem.org/videos/embed/t4FBUFhWxuQjoijPHfYQ811907092020-12-12T12:44:14.554ZentrepreneurshipYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/n8u97duwoxerPoZ75rBEHohttps://video.igem.org/lazy-static/thumbnails/41b3ffb4-4baf-4857-9c26-60a1aed36d3e.jpgiGEM EPIC: Start-up Showcase 7/8 - Grand Finals"Join us as we highlight the top iGEM Biofounders from our global community working on our transition to a sustainable bioeconomy. We will be hosting a day of keynotes, panels, pitch competitions and workshops - celebrating iGEM Biofounders success in challenges of Food, Health and Water."https://static.igem.org/peertube/streaming-playlists/hls/ab1b75c2-db57-420b-a7cb-2ecd36bf4140/7afe573a-1411-4a8c-ac92-c6c75d821bc2-master.m3u8https://video.igem.org/videos/embed/n8u97duwoxerPoZ75rBEHo24900152020-12-12T12:44:17.187ZentrepreneurshipYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/qP1k21PHQqrwrdKwzF8Mschttps://video.igem.org/lazy-static/thumbnails/1e670252-1ca9-4305-9521-29f01668e315.jpgPaul Freemont: A New Role for Biofoundries in Rapid Development & Validation of Automated SARS-Co...Professor Freemont is Head of the Section of Structural and Synthetic Biology in the Department of Infectious Disease at Imperial College. The Section is based in South Kensington Sir Alexander Fleming Building and focuses on the molecular mechanisms of human disease and infection using the tools of integrated structural biology comprising X-ray crystallography, Cryo-EM and associated biophysical, spectroscopic and cellular techniques. The Section is also leading the London Consortium for Cryo-EM (LonCEM) with partners Kings College, Institute of Cancer Research, Queen Mary University and the Francis Crick Institute. In addition the Section also has research programs in synthetic biology focused on automation, cell free systems, microbiome engineering, low cost viral and pathogenic biosensors and novel natural product discovery. Professor Freemont is also co-founder of the Imperial College Centre for Synthetic Biology (2009) and co-founder/co-director of the National UK Innovation and Knowledge Centre for Synthetic Biology (SynbiCITE; since Oct 2013) at Imperial College London. The Centre aims to enable synthetic biology research in application areas like biosensors, biosynthesis, bioprocessing and metabolic and genome engineering and enable the translation of new synthetic biology technologies into start-ups, SME`s and industry.https://static.igem.org/peertube/streaming-playlists/hls/c8eb7cb2-6f55-4db9-a1d2-75f33927686b/2103217a-7583-4d89-a1b5-cd7428045805-master.m3u8https://video.igem.org/videos/embed/qP1k21PHQqrwrdKwzF8Msc23920132020-12-15T18:21:00.679ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/eeZV3d9ckW4Dvq5srqjRxLhttps://video.igem.org/lazy-static/thumbnails/6dd8b527-35c6-47c3-96ef-ed09240609dc.jpgCapturing stories of iGEMers: The After iGEM Experience - After iGEM Communications Committee & i...After iGEM has taken initiatives such as the iGEM Digest, iGEMers of the World Podcast and iGEMer of the Month to capture and celebrate the experiences and journey of iGEMers, the discussion will feature team members who are engaged in these project, what they have learnt so far and future goalshttps://static.igem.org/peertube/streaming-playlists/hls/6b3b29a2-a001-4f43-961e-b6e89a653a86/1844cfe0-1ff8-4a10-bf82-6b6a2577aec1-master.m3u8https://video.igem.org/videos/embed/eeZV3d9ckW4Dvq5srqjRxL38140122020-12-15T18:21:08.528ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/pnE6WBdvRtMiS3ENp2mBzBhttps://video.igem.org/lazy-static/thumbnails/baf0d4c9-e6ac-4659-92d8-7b521cb9e803.jpgElena Rosca: A New Beginning In Ghana: Reflections from the journey and a roadmap for the local f...I have completed most of my education at Arizona State University with Bachelor’s degrees in Mathematics and Microbiology, followed by a Master’s Degree in Microbiology and finally my PhD in Bioengineering. I continued my journey in cancer research at Johns Hopkins University followed by a fellowship at Kings College London and established my laboratory at University of Hull looking into the role of the immune modulation in cancer therapies. Currently, I am a senior lecturer at Ashesi University in Ghana in the engineering department. I am passionate about teaching and I am interested in how to challenge students to develop unique and novel solutions to problems. Using current challenges along with research and engineering principles as motivators I strive to inspire their curiosity and desire to approach even the most daunting problems. My research interests lie in how to use principles of synthetic biology and biological inspiration to solve some of the problems facing the African continent. I am particularly fascinated by how to use the complexity and connectivity of the immune system in the context of cancer and other tropical diseases such as malaria to build a specific and personalized treatment.https://static.igem.org/peertube/streaming-playlists/hls/bd484a31-2763-4497-b9fb-008621d99d99/7ae3fddb-0a73-4886-9d12-0613c25e3fbb-master.m3u8https://video.igem.org/videos/embed/pnE6WBdvRtMiS3ENp2mBzB36200512020-12-15T18:19:47.164ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/e12kaiRcZDvspDxzYRYtsDhttps://video.igem.org/lazy-static/thumbnails/6a7f0348-3141-4233-9d24-d6afc9c41e7b.jpgiGEM EPIC: Startup Showcase 5/8 - #Health Track Pitches#HealthTrack: Highlighting the top 5 iGEM Biofounders in Food "Join us as we highlight the top iGEM Biofounders from our global community working on our transition to a sustainable bioeconomy. We will be hosting a day of keynotes, panels, pitch competitions and workshops - celebrating iGEM Biofounders success in challenges of Food, Health and Water."https://static.igem.org/peertube/streaming-playlists/hls/69479f58-2ab9-492c-b67b-b2d171132b65/7553852d-1056-48bd-95a5-de8e30d4df56-master.m3u8https://video.igem.org/videos/embed/e12kaiRcZDvspDxzYRYtsD52390222020-12-15T18:20:34.926ZentrepreneurshipYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/fM3c6HEDJxDwybPJrZ5PzNhttps://video.igem.org/lazy-static/thumbnails/7a25a3d9-f294-4921-8064-48fc7a3710f9.jpgiGEM EPIC: Startup Showcase 4/8 - #Food Track Pitches#Food Track: Highlighting the top 5 iGEM Biofounders in Food https://static.igem.org/peertube/streaming-playlists/hls/77a9c2e8-836e-4145-89e0-4189ec92ad14/84a61bd6-7180-4387-90b7-461eacf31ef9-master.m3u8https://video.igem.org/videos/embed/fM3c6HEDJxDwybPJrZ5PzN57170192020-12-15T18:20:43.218ZentrepreneurshipYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/f5QhNziZqDgw3UXd9oGTZehttps://video.igem.org/lazy-static/thumbnails/a5debabc-703c-4239-96ee-4b7e7cd0786e.jpgGenScript - CRISPR: a powerful, yet accessible gene editing tool for any research applicationJoin us in listening to James Chon, Field Application Scientist at GenScript, about how CRISPR can benefit your research and some of its cutting-edge applications.https://static.igem.org/peertube/streaming-playlists/hls/720cad08-61f3-4314-8c34-84b5270b0243/3f8046f1-baf5-4500-b59a-c1c0e7d6dc21-master.m3u8https://video.igem.org/videos/embed/f5QhNziZqDgw3UXd9oGTZe17750492020-12-16T10:29:21.138ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/wKhZnNpX8KM4F9wPcjAWvGhttps://video.igem.org/lazy-static/thumbnails/99bc701a-d739-46a4-aa29-edc22fe1d70a.jpgGlobal Biotech Revolution: GapSummitJoin us for a fireside chat with some of the 100 young leaders from GapSummit who are working on new ventures to create a better bioeconomy!https://static.igem.org/peertube/streaming-playlists/hls/f8fd9ca5-7ea8-4359-b089-9feb72b56162/9cbc5b7b-997f-4aaf-ad05-1c79824d54ce-master.m3u8https://video.igem.org/videos/embed/wKhZnNpX8KM4F9wPcjAWvG32400202020-12-16T10:30:23.056ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/4Mp9HADkkf5AgASXJMNkfmhttps://video.igem.org/lazy-static/thumbnails/49f34db6-85aa-4569-aeba-26c832839bc5.jpgCare How Biology is Used - with Ginkgo Biowork' Reshma ShettyReshma Shetty co-founded synthetic biology Ginkgo Bioworks, Inc. in 2008. Spun out of MIT, Ginkgo’s mission is to make biology easier to engineer. Started in a Cambridge, MA apartment, Reshma has helped to grow the company to 200 people and raised $450M in financing. In October 2018, Ginkgo launched Bioworks4, its fourth generation facility for design, fabrication and testing of custom designed microbes. Ginkgo is concurrently engineering more than 50 organisms to spec for customers including Ajinomoto, Cargill and ADM. Reshma has been active in the field of synthetic biology for 10+ years and co-organized SB1.0, the first international conference in synthetic biology in 2004. In 2005, Reshma and colleagues founded OpenWetWare.org, a wiki for the free sharing of information among biological and biological engineering researchers. In 2006, she was an advisor to the international Genetically Engineered Machines (iGEM) competition where she was best known for engineering bacteria to smell like bananas and mint. In 2008, Forbes magazine named Reshma one of Eight People Inventing the Future and in 2011, Fast Company named her one of 100 Most Creative People in Business. In 2014, Ginkgo became the first biotech company to participate in YCombinator. In 2018, Business Insider named her one of the most powerful female engineers.https://static.igem.org/peertube/streaming-playlists/hls/1ea2270a-b400-4942-b703-e72851049cec/ac1a8d80-6dc3-41eb-9e67-c9886c909216-master.m3u8https://video.igem.org/videos/embed/4Mp9HADkkf5AgASXJMNkfm29830392020-12-16T10:34:16.965ZgingkobioworksYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/96VCawg6LsuFBVQKmowbDNhttps://video.igem.org/lazy-static/thumbnails/f86981c9-9d3d-4101-8999-7b7ec1d8978d.jpgScience Communication Careers: An Exploratory Journey - After iGEM Communications CommitteeHighlighting science communication from different perspectives for iGEMers, from communication in education, consulting, digital media, entrepreneurship, and policy. Learn about how you can get involved with science communication and why it’s becoming an essential aspect of research beyond bench.https://static.igem.org/peertube/streaming-playlists/hls/419cdff2-c921-44ca-98f4-c4b489979048/d10f9e8f-98e3-4d1a-9631-78b9cc432925-master.m3u8https://video.igem.org/videos/embed/96VCawg6LsuFBVQKmowbDN51690622020-12-16T10:31:26.349ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/4VEVA7JppryPdPwJhNUEvuhttps://video.igem.org/lazy-static/thumbnails/d38d107f-957a-46a5-8df5-40c88e5770df.jpgAline S. Romão-Dumaresq: SENAI Approach to Deliver Sustainable Industrial Solutions Using SynbioAline S. Romão-Dumaresq holds a diploma degree in Agronomic Engineering from the University of São Paulo (USP), with a concentration area in Biotechnology. She finished her Ph.D. in Genetics at the University of São Paulo (USP) in 2010, and part of her Ph.D. was developed at the University of Exeter, United Kingdom. She was a Research Post-Doctoral fellow in Computational Biology at Oswaldo Cruz Institute (IOC) – FIOCRUZ (2012). Subsequently, she joined the Renewable Technologies Innovation team at the petrochemical company BRASKEM, where she was a Biotechnology Researcher and worked on the production of green products using genetically modified microbial cells in bioprocesses. In the end of 2015, she started working at SENAI Innovation Institute for Biosynthetics and Fibers (SENAI CETIQT). There, she was responsible for setting up the Biotechnology sector. Currently, she is the Coordinator of the Biotechnology sector at that Institute and leads a group of 23 professionals.https://static.igem.org/peertube/streaming-playlists/hls/1fc9d2d2-0203-41b8-97f5-616087079186/33400db9-7469-4e66-a632-59d2304b1b31-master.m3u8https://video.igem.org/videos/embed/4VEVA7JppryPdPwJhNUEvu39260112020-12-16T10:33:18.545ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/iBuQhgNnq4vrZvdpdyWhUehttps://video.igem.org/lazy-static/thumbnails/bc8a6b83-8897-4c68-ba5d-0bc96a261ec0.jpgShape iGEM's Code of Responsible Communication #1 - Safety & Security Committee, Human Practices ...iGEM teams are ambassadors for the global synthetic biology community; how you communicate may have a large impact beyond the competition. iGEM is considering introducing a Code of Responsible Communication specifically to address how teams communicate their science. This is your chance to shape that policy!https://static.igem.org/peertube/streaming-playlists/hls/8ea02864-67fc-4e0e-92c3-faf0cd5298c5/b746aa36-3463-424a-8254-d5a062f7ffaf-master.m3u8https://video.igem.org/videos/embed/iBuQhgNnq4vrZvdpdyWhUe1700032020-12-16T23:05:27.799ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/p1nC6NFzZsdPqgz4QSkMkmhttps://video.igem.org/lazy-static/thumbnails/808b60b3-c1f6-451e-b0c7-74d682292798.jpgSurvey Roast Trivia: Spot the Mistakes! - Human Practices CommitteeDid your team distribute a survey this year as a part of your human practices effort? Join the HP committee as we host trivia for the most common pitfalls in poor survey research design. Prizes and light-hearted roasting abound!https://static.igem.org/peertube/streaming-playlists/hls/ba4f83b4-1548-4d81-b524-bf2dc1fb080e/03123544-0d5d-4b1e-95ab-2bd1ca02a704-master.m3u8https://video.igem.org/videos/embed/p1nC6NFzZsdPqgz4QSkMkm1823072020-12-16T23:05:29.926ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/iPdUENmfRLvSAyWNtE4C5Zhttps://video.igem.org/lazy-static/thumbnails/6069d751-02ab-410b-8054-7451be40970c.jpgHuman Practices Bingo! - Human Practices CommitteeJoin the Human Practices Committee for a few rounds of BINGO! Teams are invited to fill out their bingo cards covering different activities that iGEM considers good `Human Practices." Round winners will receive fabulous prizes and be encouraged to share their experience about an interesting aspect of their human practices for their project that year.https://static.igem.org/peertube/streaming-playlists/hls/904344f0-d916-4ab3-b49e-eea5552dbb69/922ba694-513a-40c4-8b64-cd5408617e08-master.m3u8https://video.igem.org/videos/embed/iPdUENmfRLvSAyWNtE4C5Z28300142020-12-16T23:05:18.274ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/j8NT8XWj5Zi1eGAepGgpTBhttps://video.igem.org/lazy-static/thumbnails/69dc2a8e-fa55-442b-aa42-d43310731330.jpgGenScript - Interview Reunion with sponsored teams"Join us as we reunite with our Interviewed teams for a Trivia Night! We will be hosting a GenScript/MolecularCloud Interview Reunion. Our interviewees will join us once again to play some Trivia and catch up with the teams!"https://static.igem.org/peertube/streaming-playlists/hls/92db9818-ed3b-4d9c-9dc8-781a68bfe665/58839723-0b4a-40bf-9231-712dbeb27701-master.m3u8https://video.igem.org/videos/embed/j8NT8XWj5Zi1eGAepGgpTB27090142020-12-16T23:05:13.697ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/2Ty69iq64TZxXx5zVTPWtghttps://video.igem.org/lazy-static/thumbnails/60669052-8947-4c16-a515-f756fb5d3add.jpgiGEM Pub Quiz - Measurement CommitteeTest your iGEM and SynBio knowledge, as well as your team work, with a pub quiz that combines quick-fire questions with an online scavenger hunt!https://static.igem.org/peertube/streaming-playlists/hls/0f4bd8a5-af0a-4eb2-85e2-ba9d8d6eaead/a8f71c9c-fece-4991-84d2-6783121123d9-master.m3u8https://video.igem.org/videos/embed/2Ty69iq64TZxXx5zVTPWtg33630142020-12-16T23:05:25.363ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/7YtUYypJs9u3v5LvJGsTB4https://video.igem.org/lazy-static/thumbnails/4d1a4ff2-8036-4686-a316-3e369299791f.jpgUHC iGEM Minecraft Event - Team UPF_BarcelonaThe session will consist on a Minecraft ultra-hardcore competition (UHC). Although the name can be misleading, UHC is a minigame that allows for cooperation and competition between groups, thus giving tons of fun to the people participating and watching. The game is similar to what can be seen in the first “Hunger games” movie and it consists on searching for resources by groups in a definite amount of time to then do a final combat between the teams. The last team standing will be the winner, which would receive then a prize.https://static.igem.org/peertube/streaming-playlists/hls/3879af6f-f599-4f0a-82df-e03bd6f0462d/b3dae52e-e753-4b15-8280-b28676ad5694-master.m3u8https://video.igem.org/videos/embed/7YtUYypJs9u3v5LvJGsTB435290322020-12-16T23:07:30.899ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/qYneinHsdb5RZ2eTDANG7shttps://video.igem.org/lazy-static/thumbnails/cfdbb62a-a6e8-49ce-b9ef-933413cba65c.jpgiGEM EPIC: Startup Showcase 6/8 - #Environmental Track Pitches#Environmental Track: Highlighting the top 5 iGEM Biofounders in Food https://static.igem.org/peertube/streaming-playlists/hls/ca3a0fde-13e9-43e0-ae03-d0e3db05f4c6/70f0d1d8-188a-4550-86ec-67fecf7ec3c6-master.m3u8https://video.igem.org/videos/embed/qYneinHsdb5RZ2eTDANG7s50270452020-12-16T23:21:49.826ZentrepreneurshipYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/toQ9vyTR1srAcUt1c81xN7https://video.igem.org/lazy-static/thumbnails/d25cf9fd-c216-40e7-bc61-eb7d232eff76.jpgNext-Level Biosecurity: Dual Use Research of Concern Workshop - Safety & Security Committee, Huma...Why should we concern ourselves with biosecurity beyond the safety form? Dual Use Research of Concern and the publics’ conception of risks pose a threat to free research. The aim of this interactive workshop is to enable you to evaluate Dual Use Research of Concern risks to bring your biosecurity considerations to the next level.https://static.igem.org/peertube/streaming-playlists/hls/ddd6c73a-1a99-472a-920b-58c1d5aba89e/6b1bd4ad-2450-4bca-849b-ff6baae11908-master.m3u8https://video.igem.org/videos/embed/toQ9vyTR1srAcUt1c81xN763150272020-12-17T14:08:42.045ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/gAfCRxTUaFZVK7a9oHzP52https://video.igem.org/lazy-static/thumbnails/5d84a77e-e3fe-4fd0-8ab9-e3f6a74ea756.jpgWomen in iGEM and STEM - by iGEM AmbassadorsWhat does it mean to involve and engage women in STEM, synbio, and broadly biotech? After listening to amazing advice from our guests of the After iGEM "Women in STEM Interview Series", now we want to showcase and connect iGEM teams that have been working to promote gender diversity and women in science. Also, we want to get to know all of you in the biotech and synbio world and how you envision this for the future. Join our networking session targeted towards women in STEM looking to connect with other women, but open to all those looking to discuss more!https://static.igem.org/peertube/streaming-playlists/hls/7e416331-b6d4-4bff-977b-2d6b27a6dd7d/1f4e379d-ca28-42fa-ac38-23fb9caa57df-master.m3u8https://video.igem.org/videos/embed/gAfCRxTUaFZVK7a9oHzP5224310392020-12-21T14:18:47.186ZYES2020 Virtual Giant JamboreeNOhttps://video.igem.org/w/6VdZTz3b27DnC7F6yrgtJAhttps://video.igem.org/lazy-static/thumbnails/cf0b44d1-eeaf-42c5-ae91-4ba359965e56.jpgBioFounder Book Club (Session #1)In iGEM EPIC we want to grow our community of talented bioentrepreneurs! That is why we are starting the BioFounder Book Club! We understand that becoming a bioentrepreneur is a challenging journey, but reading the right stuff will give you a strong foundation key to succeed! In this kick-off session, Will Wright and I will recommend you a book that has been called the ‘Bible of Entrepreneurship.’ The Startup Owner’s Manual from Steve Blank and Bob Dorf! We believe that this book is a critical investment to the future success of any startup. We are going to highlight key points about the book, and how to apply this manual in the context of Synthetic Biology! Don't miss this chance to join us!!https://static.igem.org/peertube/streaming-playlists/hls/2fec1f9b-814b-4a14-a63e-064dd017121a/47e1cf25-088a-4fe3-a114-49674238a11d-master.m3u8https://video.igem.org/videos/embed/6VdZTz3b27DnC7F6yrgtJA32340462021-03-17T17:58:55.993ZYESiGEM StartupsNOhttps://video.igem.org/w/qXqbZumAkDBy4x8PtaTAzXhttps://video.igem.org/lazy-static/thumbnails/4bc79de5-54fb-4a0b-86c4-948623e2c426.jpgVCL Americas Expert Panel #1: Discover & DefineVCL Americas Expert Panel #1: Discover & Definehttps://static.igem.org/peertube/streaming-playlists/hls/ca18247a-ee20-4e0f-98de-2d8f3d6e9e21/ed3fadcf-08ff-4a17-be48-a00b11682adc-master.m3u8https://video.igem.org/videos/embed/qXqbZumAkDBy4x8PtaTAzX43260162021-04-15T01:18:50.681ZYESiGEM StartupsNOhttps://video.igem.org/w/aDqmyq8Y9fVdFTUYv6jrmzhttps://video.igem.org/lazy-static/thumbnails/38a11fd1-eaab-4286-921a-107390669adb.jpgVCL Americas Expert Panel #2: Idea DevelopmentJoin us on April 21 at 5PM PST for a panel featuring Emily Leproust, CEO of Twist Bioscience! https://static.igem.org/peertube/streaming-playlists/hls/4e1bc6c2-3f56-4064-a52f-e5c9a7d9596d/dbfbbf48-bd24-4b09-b8dc-74f7429a536d-master.m3u8https://video.igem.org/videos/embed/aDqmyq8Y9fVdFTUYv6jrmz35390322021-04-22T01:05:46.763ZYESiGEM StartupsNOhttps://video.igem.org/w/xe9FjQ1VxGumxtQK2QRNRChttps://video.igem.org/lazy-static/thumbnails/4c3c0eff-0ae5-420f-8af5-575e52b0dc46.jpgWeek #0: Introduction to Summer WebinarsThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #1 (JUNE 9th): Introduction to the Summer Webinars from the Measurement Committee During this first week, we will briefly give an overview on the summer webinar series, describing what we hope to accomplish and what we hope that you will get out of attending. This webinar, and all of the following webinars, will be made available online after the webinar is finished. Additional related content can be found online.https://static.igem.org/peertube/streaming-playlists/hls/fce150c3-8b09-4d6b-89dd-d53f2b3367be/2e0ff8a7-fc56-4263-ab5e-f38d05927500-master.m3u8https://video.igem.org/videos/embed/xe9FjQ1VxGumxtQK2QRNRC127001122020-06-09T16:39:16.070ZYESiGEM WebinarsNOhttps://video.igem.org/w/kqp8oj4pqAeDnp3FghtaR7https://video.igem.org/lazy-static/thumbnails/ceb3df5d-97a7-424a-8043-6e5803cd3b90.jpgBiotech Robotic Cloud Labs: During the Pandemic and Onwards (Panel by After iGEM)What does the future of synthetic biology look like with automation and cloud labs? How can machines and robots perform the tasks we do in the lab and where do we fit in this picture? How is this used during this pandemic and what does our future look like with them? Featuring panelists/speakers from Emerald, Strateos, Culture, and Zymergen. Panel schedule: 10 minutes - Introductions 45 minutes - Curated Questions 30 minutes - Questions from the audience 5 minutes - Closing remarks Organized by After iGEM North American Ambassador Melody Wuhttps://static.igem.org/peertube/streaming-playlists/hls/9d45bcdc-6ca3-4f12-81d6-8d25c9ff96bc/187a4220-eab3-4208-a2de-5f017803a6a8-master.m3u8https://video.igem.org/videos/embed/kqp8oj4pqAeDnp3FghtaR75265082021-04-17T16:50:25.569ZsynbioYESiGEM FoundationNOhttps://video.igem.org/w/myaDCWBLChWkziZ3auwsBqhttps://video.igem.org/lazy-static/thumbnails/fac37f50-45d8-4520-9928-1f138cdeb4bf.jpgWeek #1-3: Getting Started - Cloning StrategyThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #1 GETTING STARTED The first session of the iGEM Measurement committee’s summer webinars opens with an overview of how and where to start your project, as well as what you can plan and design. The second block will be a beginner’s guide on how to utilize databases effectively in conjunction with bioinformatics tools. We will end this session with an overview of the decision making process when choosing a cloning strategy. Part 1/3: Project Overview Part 2/3: Using Databases Part 3/3: Cloning Strategyhttps://static.igem.org/peertube/streaming-playlists/hls/a674852b-64d3-4c65-ba3b-e9403554c8be/daa1ac25-6a65-4493-a41b-d9b035a42a1e-master.m3u8https://video.igem.org/videos/embed/myaDCWBLChWkziZ3auwsBq14120822020-06-16T17:19:10.790ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/sb9h9rPysEvnfYU6c6SVCFhttps://video.igem.org/lazy-static/thumbnails/c353faab-c379-49ec-9b85-d2f3fbf2a112.jpgWeek #1-2: Getting Started - Using DatabasesThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #1 GETTING STARTED The first session of the iGEM Measurement committee’s summer webinars opens with an overview of how and where to start your project, as well as what you can plan and design. The second block will be a beginner’s guide on how to utilize databases effectively in conjunction with bioinformatics tools. We will end this session with an overview of the decision making process when choosing a cloning strategy. Part 1/3: Project Overview https://youtu.be/u38VvCIrMvk Part 3/3: Cloning Strategy https://youtu.be/FHDHPp0bOtEhttps://static.igem.org/peertube/streaming-playlists/hls/d3f82503-b902-4c2d-902d-0dfa5f6aad03/b4b018e1-d0a7-4891-a3ea-22fe80abf041-master.m3u8https://video.igem.org/videos/embed/sb9h9rPysEvnfYU6c6SVCF183401242020-06-16T17:11:54.610ZYESiGEM WebinarsNOhttps://video.igem.org/w/mPXqrKF6tqHmCJN8QRnEwzhttps://video.igem.org/lazy-static/thumbnails/cbbc2c79-3bee-4cf9-97bf-f29ca0e0e67c.jpgWeek #1-1: Getting Started - Project OverviewThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #1 GETTING STARTED The first session of the iGEM Measurement committee’s summer webinars opens with an overview of how and where to start your project, as well as what you can plan and design. The second block will be a beginner’s guide on how to utilize databases effectively in conjunction with bioinformatics tools. We will end this session with an overview of the decision making process when choosing a cloning strategy. Part 2/3: Using Databases https://youtu.be/r8eheCK5w3E Part 3/3: Cloning Strategy https://youtu.be/FHDHPp0bOtEhttps://static.igem.org/peertube/streaming-playlists/hls/a8a8e294-034c-412e-b10c-554036ba465d/1ed791cf-c486-4522-aa96-55eeba004053-master.m3u8https://video.igem.org/videos/embed/mPXqrKF6tqHmCJN8QRnEwz85601592020-06-16T17:03:32.710ZYESiGEM WebinarsNOhttps://video.igem.org/w/nbsbiKFHm2L3s1i3kMB6TChttps://video.igem.org/lazy-static/thumbnails/aabd2282-0538-4b31-aef5-9694252f66c2.jpgWeek #2B-2: DNA parts & Basic Molecular Biology - Part CollectionsThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #2B: DNA PARTS AND BASIC MOLECULAR BIOLOGY In this molecular biology webinar, we will cover important concepts including, standard parts and why they are important in synthetic biology, what the iGEM registry is, and what a "part collection" is. Additionally, we will introduce you to core molecular biology techniques, giving you links to videos and protocols. Additionally, we will highlight a few important "part collections", the measurement data affiliated with these collections, and why these measurements as well as the part registry are so important when deciding what DNA parts to use. Presented by Rene Inckemann Part 1/3: DNA Parts https://youtu.be/xCBAPiA5nhc Part 2/3: Part Collections https://youtu.be/QR0x42HR7wo Part 3/3: Basic Techniques https://youtu.be/gj5flZZSnH0https://static.igem.org/peertube/streaming-playlists/hls/ab857b6d-35ee-46d6-a41f-c9a369f4628e/8c7b04fb-0d11-4965-a3d8-de2b3ee4efda-master.m3u8https://video.igem.org/videos/embed/nbsbiKFHm2L3s1i3kMB6TC13580532020-06-25T18:35:57.610ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/suqFW4MQBgYcRa1yFweU3Jhttps://video.igem.org/lazy-static/thumbnails/0a6dc68a-006f-4809-8e9e-f98a75b29056.jpgWeek #2A-3: Modeling - Examples of Hill FunctionsThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #2A: DNA PARTS AND BASIC MOLECULAR BIOLOGY In this molecular biology webinar, we will cover important concepts including, standard parts and why they are important in synthetic biology, what the iGEM registry is, and what a "part collection" is. Additionally, we will introduce you to core molecular biology techniques, giving you links to videos and protocols. Additionally, we will highlight a few important "part collections", the measurement data affiliated with these collections, and why these measurements as well as the part registry are so important when deciding what DNA parts to use. Presented by Rene Inckemann Part 1/3: DNA Parts Part 2/3: Part Collections https://youtu.be/QR0x42HR7wo Part 3/3: Basic Techniques https://youtu.be/51HLVS99QVohttps://static.igem.org/peertube/streaming-playlists/hls/d685a542-13f6-46eb-97d8-a9f492b1ba36/1f4c713d-3363-437a-9513-0d6bff5b50ef-master.m3u8https://video.igem.org/videos/embed/suqFW4MQBgYcRa1yFweU3J5130652020-06-25T17:38:22.120ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/b59F8fZYUdTHDcLRjmarwghttps://video.igem.org/lazy-static/thumbnails/3573c069-fb8e-4a8a-9f49-da98768c1f83.jpgWeek #2A-1: Modeling - ODEsThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #2A: MODELLING - ODEs & HILL FUNCTION In this Modeling Webinar (Part I) we will go from ODEs (ordinary differential equations) and the law of mass action to Hill functions, their derivation, and how to use them to model the regulation of gene expression and inducible promoters. Additionally, we will explore Hill functions and explain the effects of parameters on activators, repressors, hybrid promoters, and the corresponding protein expression levels of GFP or any other reporter gene. Presented by Alejandro Vignoni Part 1/3: Modeling - ODEs https://youtu.be/K0P1KVk_hDo Part 2/3: Introduction to Hill Functions https://youtu.be/_DoHHe3ZApc Part 3/3: Examples of Hill Functions https://youtu.be/51HLVS99QVohttps://static.igem.org/peertube/streaming-playlists/hls/518fb523-9adb-4777-a22a-9c0280608e87/f4572adf-11b5-4b5a-9314-968f5fa3cf64-master.m3u8https://video.igem.org/videos/embed/b59F8fZYUdTHDcLRjmarwg176202122020-06-25T17:35:27.600ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/4vYHH94Eeor4y4Lm8LwWSChttps://video.igem.org/lazy-static/thumbnails/29e20b04-9f11-40d2-a312-7f8149fff8c9.jpgWeek #2B-3: DNA Parts & Basic Molecular Biology - Basic TechniquesThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #2B: DNA PARTS AND BASIC MOLECULAR BIOLOGY In this molecular biology webinar, we will cover important concepts including, standard parts and why they are important in synthetic biology, what the iGEM registry is, and what a "part collection" is. Additionally, we will introduce you to core molecular biology techniques, giving you links to videos and protocols. Additionally, we will highlight a few important "part collections", the measurement data affiliated with these collections, and why these measurements as well as the part registry are so important when deciding what DNA parts to use. Presented by Tania Pozzo Part 1/3: DNA Parts https://youtu.be/xCBAPiA5nhc Part 2/3: Part Collections https://youtu.be/QR0x42HR7wo Part 3/3: Basic Techniques https://youtu.be/gj5flZZSnH0https://static.igem.org/peertube/streaming-playlists/hls/1c7af091-0aa1-463d-afc8-ce88c3c519e0/80aae26f-f478-47ed-8b6f-ee21e53f41b4-master.m3u8https://video.igem.org/videos/embed/4vYHH94Eeor4y4Lm8LwWSC2580422020-06-25T18:43:11.700ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/gWSiXuf3yQKSFEEjZNj9xghttps://video.igem.org/lazy-static/thumbnails/6f08fb78-f0b2-4d91-9dd8-5206d39ea1bd.jpgWeek #2B-1: DNA Parts & Basic Molecular Biology - DNA PartsThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #2B: DNA PARTS AND BASIC MOLECULAR BIOLOGY In this molecular biology webinar, we will cover important concepts including, standard parts and why they are important in synthetic biology, what the iGEM registry is, and what a "part collection" is. Additionally, we will introduce you to core molecular biology techniques, giving you links to videos and protocols. Additionally, we will highlight a few important "part collections", the measurement data affiliated with these collections, and why these measurements as well as the part registry are so important when deciding what DNA parts to use. Presented by Rene Inckemann Part 1/3: DNA Parts https://youtu.be/xCBAPiA5nhc Part 2/3: Part Collections https://youtu.be/QR0x42HR7wo Part 3/3: Basic Techniques https://youtu.be/gj5flZZSnH0https://static.igem.org/peertube/streaming-playlists/hls/81223f74-7a6e-4299-809f-782ea7f0cc05/e0d34da3-476c-4b69-81c4-e449995508a3-master.m3u8https://video.igem.org/videos/embed/gWSiXuf3yQKSFEEjZNj9xg211101362020-06-25T18:21:02.970ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/sL93DJVnrXQoYaMgwvk4Ghhttps://video.igem.org/lazy-static/thumbnails/75e91748-38ca-4b17-a309-e781d5d200f8.jpgWeek #3A-1: Modeling - Composing Circuit Models from Hill FunctionsModeling Circuits with ODEs & Experimental Data Part 2/3: Relating parameters and data (example: sense-compute-act) In this modeling webinar (Part II) we will focus on how to use the previously learned concepts to model genetic circuits with ODEs and Hill functions. A circuit that is capable of "sense-compute-act" is used as an example. Then, we will learn how to relate this model with experimental data from this genetic circuit. Finally, we will focus on a more complex circuit, the Incoherent feed-forward motif to compare the results obtained from the model and its experimental measurements, enriching this way the model and completing one turn of the DBTL cycle. Presented by Alejandro Vignoni Email: measurement AT igem DOT org Part 1/3: https://youtu.be/btq_YFJuCsw Part 2/3: https://youtu.be/-1UsZp1rbgA Part 3/3: https://youtu.be/I9ZZIu80nnwhttps://static.igem.org/peertube/streaming-playlists/hls/d8b74a14-c5c0-474b-91c1-826148e19c54/f4ac00f6-1b89-4ca5-be2b-40d7ee8b11ee-master.m3u8https://video.igem.org/videos/embed/sL93DJVnrXQoYaMgwvk4Gh198801222020-07-02T17:02:29.670ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/qoQW43TtXrvC4aWywhj3Eqhttps://video.igem.org/lazy-static/thumbnails/c9c816a6-37fb-4e21-919a-1128b53d8324.jpgWeek #3A-2: Modeling - Relating parameters and dataModeling Circuits with ODEs & Experimental Data Part 2/3: Relating parameters and data (example: sense-compute-act) In this modeling webinar (Part II) we will focus on how to use the previously learned concepts to model genetic circuits with ODEs and Hill functions. A circuit that is capable of "sense-compute-act" is used as an example. Then, we will learn how to relate this model with experimental data from this genetic circuit. Finally, we will focus on a more complex circuit, the Incoherent feed-forward motif to compare the results obtained from the model and its experimental measurements, enriching this way the model and completing one turn of the DBTL cycle. Presented by Alejandro Vignoni Email: measurement AT igem DOT org Part 1/3: https://youtu.be/btq_YFJuCsw Part 2/3: https://youtu.be/-1UsZp1rbgA Part 3/3:https://static.igem.org/peertube/streaming-playlists/hls/c58bd89d-eedc-4ab0-ab59-6495430f718c/84eb30ed-55be-41e7-8e08-38580347c953-master.m3u8https://video.igem.org/videos/embed/qoQW43TtXrvC4aWywhj3Eq10730382020-07-02T17:10:59.430ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/8fGYMbyRNRZsdhqEEfwUXQhttps://video.igem.org/lazy-static/thumbnails/b007406a-4fa2-42d1-a851-aeefb4c238a8.jpgWeek #3B-1: DNA Assembly Techniques - Designing PrimersIn this molecular biology webinar, we will cover the creation of DNA primers for use in PCR reactions. We will also introduce the key concepts behind Golden Gate Assembly, why it is useful when working with DNA "parts", and then go into using Modular Cloning. There will be demonstrations of designing primers and using DNA parts that are Golden Gate compatible using various Web Apps. iGEM students should also review the iGEM partners page to learn about how to get free DNA synthesis services! Presented by Dennis Mishler Email: measurement AT igem DOT org Part 1/3: https://youtu.be/S86y5igQ7y0 Part 2/3: https://youtu.be/O10sqMu1HTY Part 3/3: https://youtu.be/-iclKqAjyJkhttps://static.igem.org/peertube/streaming-playlists/hls/3abda338-0edb-42a5-b91c-b3c0794e86c6/5178e2ee-e5c9-4a9b-9434-60bcdc2dc8b9-master.m3u8https://video.igem.org/videos/embed/8fGYMbyRNRZsdhqEEfwUXQ148601432020-07-02T18:18:16.740ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/jujAjTcDvGoWqiHSZ2ryT6https://video.igem.org/lazy-static/thumbnails/1f64d47f-a6c7-4b88-b4c8-487212a9e917.jpgWeek #3B-3: DNA Assembly Techniques - MoClo (Modular Assembly)In this molecular biology webinar, we will cover the creation of DNA primers for use in PCR reactions. We will also introduce the key concepts behind Golden Gate Assembly, why it is useful when working with DNA "parts", and then go into using Modular Cloning. There will be demonstrations of designing primers and using DNA parts that are Golden Gate compatible using various Web Apps. iGEM students should also review the iGEM partners page to learn about how to get free DNA synthesis services! Presented by Rene Inckemann Email: measurement AT igem DOT org Part 1/3: https://youtu.be/S86y5igQ7y0 Part 2/3: https://youtu.be/O10sqMu1HTY Part 3/3: https://youtu.be/-iclKqAjyJkhttps://static.igem.org/peertube/streaming-playlists/hls/95b8c770-3739-4b62-9b3b-64ab20700bab/90e57d1d-787c-4564-9af1-199ae774e2b9-master.m3u8https://video.igem.org/videos/embed/jujAjTcDvGoWqiHSZ2ryT619010712020-07-02T18:38:05.970ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/75n1fWPfjyfV6Cy1FZhHbohttps://video.igem.org/lazy-static/thumbnails/0dde919b-6920-47fb-aaa7-1f91c72a7d75.jpgWeek #3B-2: DNA Assembly Techniques - Golden Gate AssemblyIn this molecular biology webinar, we will cover the creation of DNA primers for use in PCR reactions. We will also introduce the key concepts behind Golden Gate Assembly, why it is useful when working with DNA "parts", and then go into using Modular Cloning. There will be demonstrations of designing primers and using DNA parts that are Golden Gate compatible using various Web Apps. iGEM students should also review the iGEM partners page to learn about how to get free DNA synthesis services! Presented by Dennis Mishler Email: measurement AT igem DOT org Part 1/3: https://youtu.be/S86y5igQ7y0 Part 2/3: https://youtu.be/O10sqMu1HTY Part 3/3: https://youtu.be/-iclKqAjyJkhttps://static.igem.org/peertube/streaming-playlists/hls/3132c061-7e83-40e4-9c69-cab3e99f2d8e/981e6c7a-03f2-47f2-a364-9816d2c817d0-master.m3u8https://video.igem.org/videos/embed/75n1fWPfjyfV6Cy1FZhHbo12020712020-07-02T18:27:23.770ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/kkraMMH7BuEp3AtyR8gnsyhttps://video.igem.org/lazy-static/thumbnails/103e0ec6-99fc-4be3-8cec-45ec13ede06c.jpgWeek #4-1: Gibson Assembly and Yeast - Gibson AssemblyIn this molecular biology webinar, we will cover what Gibson Assembly is and how to create a plasmid using this powerful technique. Additionally, we will go over some of the basics of working with yeast and how yeast can be used to also assemble large amounts of DNA using their endogenous pathways. Presented by Iain George Part 2/2:https://static.igem.org/peertube/streaming-playlists/hls/9c9446e8-691d-41ca-a6d0-6f54fd2626e0/0e3178a8-16d6-4c4f-aee1-0dfc63d6cd0e-master.m3u8https://video.igem.org/videos/embed/kkraMMH7BuEp3AtyR8gnsy118101062020-07-09T17:12:38.530ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/dLCekdn5QhSmPP8LNe5Uuqhttps://video.igem.org/lazy-static/thumbnails/32c359c9-f69d-409c-a62f-f17b865c05d5.jpgWeek #4-2: Gibson Assembly and Yeast - Yeast AssemblyIn this molecular biology webinar, we will cover what Gibson Assembly is and how to create a plasmid using this powerful technique. Additionally, we will go over some of the basics of working with yeast and how yeast can be used to also assemble large amounts of DNA using their endogenous pathways. Presented by Sonja Billerbeck Part 1/2: https://youtu.be/0rXEPB2HXAghttps://static.igem.org/peertube/streaming-playlists/hls/6768b79c-e5e5-46cb-ad64-356a36155870/74935691-651c-438b-918f-7168614c1390-master.m3u8https://video.igem.org/videos/embed/dLCekdn5QhSmPP8LNe5Uuq18670282020-07-09T17:21:18.160ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/3WXkBSA5NzrsAMV7PxABtnhttps://video.igem.org/lazy-static/thumbnails/b81d5bb4-9cee-4181-9802-4d51beeb9adf.jpgDry Lab Impulse #1: Team Calgary 2019 - iGAM Software for evaluating protein modificationsDry Lab Impulse Webinar Series by After iGEM Academia & Research Committee iGAM (International Genetic Algorithm Machine) Software allows iGEM teams to generate their own genetic algorithms to make informed decisions on the modification of their proteins. Speaker: Andrew Symeshttps://static.igem.org/peertube/streaming-playlists/hls/17de8b57-c695-4477-81a1-4a24826cebbf/fd95e701-426c-4fb3-88ac-4d82d590208d-master.m3u8https://video.igem.org/videos/embed/3WXkBSA5NzrsAMV7PxABtn160801182021-04-17T19:02:20.955ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/34Sb5TYzgjpXfqwbHjeGYrhttps://video.igem.org/lazy-static/thumbnails/dc4a97ab-7a84-45be-a1b3-3f7e6d57a5cc.jpgDry Lab Impulse #2: Team TecCEM 2018 - BioBrick Builder SoftwareDry Lab Impulse Webinar Series by After iGEM Academia & Research Committee BioBrick Builder - a tool that simplifies the design of standardized BioBrick parts. Speaker: Juan Carlos Rueda Silva Speaker: Andrew Symeshttps://static.igem.org/peertube/streaming-playlists/hls/10bc6deb-8e0d-4574-84c8-4e515de161b1/2924d1e4-473a-4077-9910-7d23253e17d7-master.m3u8https://video.igem.org/videos/embed/34Sb5TYzgjpXfqwbHjeGYr23410282021-04-17T19:15:16.212ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/nAevpSVcCKNz9q2WEVEKTPhttps://video.igem.org/lazy-static/thumbnails/6037ec6e-98ce-4185-98ab-7d838296896d.jpgDry Lab Impulse #3: Team IISER Kolkata 2019 - Modeling the dynamics of the process of phagocytosisDry Lab Impulse Webinar Series by After iGEM Academia & Research Committee Model to simulate macrophage behaviour upon GMO introduction. Speaker: Aniruddh Deshpandehttps://static.igem.org/peertube/streaming-playlists/hls/aed7862a-6a56-4d27-94c5-394b450194c9/7ad8eee9-6554-4c0c-a65f-55acb4807b27-master.m3u8https://video.igem.org/videos/embed/nAevpSVcCKNz9q2WEVEKTP21750212021-04-17T19:30:29.320ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/iE9z4bxJ21ANypZWWpEL6vhttps://video.igem.org/lazy-static/thumbnails/5fb1d033-239d-4452-9b4b-0a4afec2f1eb.jpgDry Lab Impulse #4: Team ULaval 2019 - Designing Toehold RiboswitchesDry Lab Impulse Webinar Series by After iGEM Academia & Research Committee Model for secondary structure of riboswitches. Speaker: Angel Cisneroshttps://static.igem.org/peertube/streaming-playlists/hls/8efee6e1-4d6b-4168-bebd-46b71656688f/0ebd3f76-b526-46a4-a091-287381322680-master.m3u8https://video.igem.org/videos/embed/iE9z4bxJ21ANypZWWpEL6v23710142021-04-17T19:45:27.033ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/kHZv3weCScLWVLN51vfjuYhttps://video.igem.org/lazy-static/thumbnails/81b2e89d-e3d6-4f35-b3a9-59e90a64ebfa.jpgWeek #6B-3: Transformation and SequencingMore info: https://2020.igem.org/Measurement/Webinars In this molecular biology webinar, we will cover some of the most important techniques for genetically modifying bacteria. We will cover standard electroporation and chemical transformation techniques for E. coli. We will also cover conjugation, a technique commonly used to genetically engineer organisms that are less well studied or organisms that cannot be easily electroporated or chemically transformed. Finally, we will cover the process of Sanger sequencing, look over a sequencing result, and demonstrate how to align sequencing results to a reference file. Part 1/3: https://youtu.be/94Wd6EcuR4Q Part 2/3: https://youtu.be/KFx6ZlVLTZY Part 3/3: https://youtu.be/QOCmFbt8Exchttps://static.igem.org/peertube/streaming-playlists/hls/9fba90b1-52a0-4870-9706-4534f82c4e18/92123267-5ece-49ef-b5f0-a3649cc07001-master.m3u8https://video.igem.org/videos/embed/kHZv3weCScLWVLN51vfjuY20310322020-09-04T20:36:50.420ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/uj9VcAvmWW6iVh5Ljui4LLhttps://video.igem.org/lazy-static/thumbnails/1675d793-eaab-490c-acd6-b299e324c65c.jpgWeek #5B-3: Cell-Free Systems - PURE systemMore info: https://2020.igem.org/Measurement/Webinars This webinar will cover Cell-free (CF) systems. These systems contain all of the cellular components necessary for transcription and/or translation, depending on the specific CF system being used. We will outline why this is an exciting area of research as well as how to use and make these systems. Part 1/3: https://youtu.be/I6XZi6bTBBY Part 2/3: https://youtu.be/h7cN2TZD-I4 Part 3/3: https://youtu.be/KnFs4IXTdRkhttps://static.igem.org/peertube/streaming-playlists/hls/e548c40a-6bf9-4864-800d-e748f2085c38/a6d9149b-3c8b-46ae-965c-590a42bd4448-master.m3u8https://video.igem.org/videos/embed/uj9VcAvmWW6iVh5Ljui4LL12210492020-09-04T18:36:01.180ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/8S4nGPfuUoBrF3jLT5JjLLhttps://video.igem.org/lazy-static/thumbnails/bf9e2627-bab7-44fd-9759-b3335fb890ab.jpgWeek #5B-2: Cell-Free Systems - Making Cell-Free systems (making lysate, CF mix )More info: https://2020.igem.org/Measurement/Webinars This webinar will cover Cell-free (CF) systems. These systems contain all of the cellular components necessary for transcription and/or translation, depending on the specific CF system being used. We will outline why this is an exciting area of research as well as how to use and make these systems. Part 1/3: https://youtu.be/I6XZi6bTBBY Part 2/3: https://youtu.be/h7cN2TZD-I4 Part 3/3: https://youtu.be/KnFs4IXTdRkhttps://static.igem.org/peertube/streaming-playlists/hls/3fad3d11-5369-43d9-99b3-321ed189285c/ad5d90e3-e3b1-4609-ab31-868d752669d6-master.m3u8https://video.igem.org/videos/embed/8S4nGPfuUoBrF3jLT5JjLL12560492020-09-04T18:23:18.560ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/9fMyDHhP83G4oWJ1ndRPz5https://video.igem.org/lazy-static/thumbnails/59b63c7b-2fea-4961-8b61-9f6290b611ea.jpgWeek #6B-1: Transformation and Sequencing - Transformation of E. coli: Electroporation & ChemicalMore info: https://2020.igem.org/Measurement/Webinars In this molecular biology webinar, we will cover some of the most important techniques for genetically modifying bacteria. We will cover standard electroporation and chemical transformation techniques for E. coli. We will also cover conjugation, a technique commonly used to genetically engineer organisms that are less well studied or organisms that cannot be easily electroporated or chemically transformed. Finally, we will cover the process of Sanger sequencing, look over a sequencing result, and demonstrate how to align sequencing results to a reference file. Part 1/3: https://youtu.be/94Wd6EcuR4Q Part 2/3: https://youtu.be/KFx6ZlVLTZY Part 3/3: https://youtu.be/QOCmFbt8Exchttps://static.igem.org/peertube/streaming-playlists/hls/42d999e9-4ae1-4b8f-8580-a879037baca2/e12f9776-a7e9-4a2d-9a4e-5af761e3d6bc-master.m3u8https://video.igem.org/videos/embed/9fMyDHhP83G4oWJ1ndRPz513030582020-09-04T20:19:47.540ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/h9Qge7dLSD2stEjzDE4DbZhttps://video.igem.org/lazy-static/thumbnails/ebe92f29-0e09-4990-bea2-03f74322d445.jpgWeek #5A-3: Quantifying fluorescence and cell count with plate readersMore info: https://2020.igem.org/Measurement/Webinars This webinar begins with a general introduction to fluorescence and OD, including a comparison of plate readers and other types of instruments, factors affecting fluorescence, and how to pick colors based on excitation and emission spectra. The second block of the webinar focuses on calibration of measurements for fluorescence and OD, and on debugging such measurements. Finally, we will end this session with a discussion of how to interpret and debug calibrated plate reader data. Part 1/3: https://youtu.be/bT71Ffu9UfE Part 2/3: https://youtu.be/Ic0Xfr685bA Part 3/3: https://youtu.be/hzRyocymke0https://static.igem.org/peertube/streaming-playlists/hls/82cde95b-84e2-414f-bd3a-c337730056e9/94fefbb1-02c3-458b-a695-0d4818d0da56-master.m3u8https://video.igem.org/videos/embed/h9Qge7dLSD2stEjzDE4DbZ12640292020-09-04T17:36:39.040ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/1xb95WivCS8VnEBbJNmQJchttps://video.igem.org/lazy-static/thumbnails/8c54e330-3f1c-4056-9b03-27fe64dc5389.jpgWeek #6A-2: Quantifying fluorescence and cell phenotypes with flow cytometryMore info: https://2020.igem.org/Measurement/Webinars This webinar begins with an introduction to flow cytometry, including how these instruments operate and the types of data that they produce. The second block of the webinar focuses on calibration of measurements for fluorescence and cell size, and on debugging such measurements. Finally, we will end this session with a discussion of how to interpret and debug calibrated flow cytometry data. Part 1/3: https://youtu.be/ODF-9L2FLbg Part 2/3: https://youtu.be/6jCxWe9QsUM Part 3/3: https://youtu.be/WOhPj5Csog0https://static.igem.org/peertube/streaming-playlists/hls/045a4e35-0114-482a-8969-d3a7b693128f/96faa3de-fd07-4b7d-8652-6e710d8fa1fa-master.m3u8https://video.igem.org/videos/embed/1xb95WivCS8VnEBbJNmQJc10330102020-09-04T19:22:39.580ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/h98fHqUDeJbMsSpGvvNd5nhttps://video.igem.org/lazy-static/thumbnails/50b1b3c9-a8f5-470d-a484-90fb65907da9.jpgWeek #8-1: Protein Purification and Characterization - Protein Biochemistry FundamentalsMore info: https://2020.igem.org/Measurement/Webinars This Webinar will provide an overview of protein characterization that covers analytical techniques used to purify recombinant proteins and evaluate protein purity. The topics primarily focus on methods employed to characterize the physicochemical properties of targeted proteins. We will begin by discussing important aspects of protein structure taken into consideration when purifying a protein of interest. We will then provide guidelines for selecting appropriate purification methods and evaluating purity using qualitative and quantitative techniques. Part 1/3: https://youtu.be/QOJN8_hb834 Part 2/3: https://youtu.be/0ShO9RuNsF0 Part 3/3: https://youtu.be/PT0EP8bLT48https://static.igem.org/peertube/streaming-playlists/hls/82b4a393-69dd-4d09-85b9-acb53a27c54d/d82685ba-ccd7-443d-809a-8915563c8c9f-master.m3u8https://video.igem.org/videos/embed/h98fHqUDeJbMsSpGvvNd5n11240652020-09-04T22:16:53.020ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/dWodgSb3XezbwbvkP9ZBDThttps://video.igem.org/lazy-static/thumbnails/244223c4-e918-485c-ad14-f404f060a572.jpgWeek #8-3: Protein Purification and Characterization - Evaluating Protein PurityMore info: https://2020.igem.org/Measurement/Webinars This Webinar will provide an overview of protein characterization that covers analytical techniques used to purify recombinant proteins and evaluate protein purity. The topics primarily focus on methods employed to characterize the physicochemical properties of targeted proteins. We will begin by discussing important aspects of protein structure taken into consideration when purifying a protein of interest. We will then provide guidelines for selecting appropriate purification methods and evaluating purity using qualitative and quantitative techniques. Part 1/3: https://youtu.be/QOJN8_hb834 Part 2/3: https://youtu.be/0ShO9RuNsF0 Part 3/3: https://youtu.be/PT0EP8bLT48https://static.igem.org/peertube/streaming-playlists/hls/68c58411-8873-4ac9-aabc-f2dbe4abc589/fa990cfd-014e-44b8-b25b-d3a66673c75c-master.m3u8https://video.igem.org/videos/embed/dWodgSb3XezbwbvkP9ZBDT13260252020-09-04T22:30:15.660ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/5gbgJJkvD88DVuVmJMtMoXhttps://video.igem.org/lazy-static/thumbnails/6296a916-19a3-4ee1-aee2-72053a5915bb.jpgWeek #5A-2: Quantifying fluorescence and cell count with plate readersMore info: https://2020.igem.org/Measurement/Webinars This webinar begins with a general introduction to fluorescence and OD, including a comparison of plate readers and other types of instruments, factors affecting fluorescence, and how to pick colors based on excitation and emission spectra. The second block of the webinar focuses on calibration of measurements for fluorescence and OD, and on debugging such measurements. Finally, we will end this session with a discussion of how to interpret and debug calibrated plate reader data. Part 1/3: https://youtu.be/bT71Ffu9UfE Part 2/3: https://youtu.be/Ic0Xfr685bA Part 3/3: https://youtu.be/hzRyocymke0https://static.igem.org/peertube/streaming-playlists/hls/22830a86-ade7-423f-aece-03574652324f/496832f4-f7de-4a6a-a4ff-3e9c17a5eb93-master.m3u8https://video.igem.org/videos/embed/5gbgJJkvD88DVuVmJMtMoX12630272020-09-04T17:22:45.080ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/2sHRX7AAjWSWwUK9xjN69Chttps://video.igem.org/lazy-static/thumbnails/c7730bce-d0d4-459a-b5d3-b9fed0a98daa.jpgWeek #7-1: CRISPR - IntroductionMore info: https://2020.igem.org/Measurement/Webinars Part 1/3: https://youtu.be/o0yo9uDBc5I Part 2/3: https://youtu.be/aixCtcTpepI Part 3/3: https://youtu.be/EHoee-rgvGwhttps://static.igem.org/peertube/streaming-playlists/hls/0bd4464a-1464-4eb4-aa27-3e2e56cc3dd8/e962c3bc-a2ba-49f8-8b3d-48cd03e57309-master.m3u8https://video.igem.org/videos/embed/2sHRX7AAjWSWwUK9xjN69C12130702020-09-04T21:17:39.890ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/5A5c3APfMKE2R34rcCFcYVhttps://video.igem.org/lazy-static/thumbnails/60fe9e04-4bf7-4fda-8f02-68bda2b986f6.jpgWeek #6B-2: Transformation and SequencingMore info: https://2020.igem.org/Measurement/Webinars In this molecular biology webinar, we will cover some of the most important techniques for genetically modifying bacteria. We will cover standard electroporation and chemical transformation techniques for E. coli. We will also cover conjugation, a technique commonly used to genetically engineer organisms that are less well studied or organisms that cannot be easily electroporated or chemically transformed. Finally, we will cover the process of Sanger sequencing, look over a sequencing result, and demonstrate how to align sequencing results to a reference file. Part 1/3: https://youtu.be/94Wd6EcuR4Q Part 2/3: https://youtu.be/KFx6ZlVLTZY Part 3/3: https://youtu.be/QOCmFbt8Exchttps://static.igem.org/peertube/streaming-playlists/hls/25266cde-09fb-48b2-9ccb-19cc2df01969/fb3a3ce5-9127-45ca-a2c1-772777bdbed9-master.m3u8https://video.igem.org/videos/embed/5A5c3APfMKE2R34rcCFcYV12500162020-09-04T20:22:29.910ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/eVJVdqsqEViZy7Yhcsw9gChttps://video.igem.org/lazy-static/thumbnails/98a8d1cf-4137-4aab-ad45-8a3ae32a4965.jpgWeek #8-2: Protein Purification and Characterization - Protein Purification StrategiesMore info: https://2020.igem.org/Measurement/Webinars This Webinar will provide an overview of protein characterization that covers analytical techniques used to purify recombinant proteins and evaluate protein purity. The topics primarily focus on methods employed to characterize the physicochemical properties of targeted proteins. We will begin by discussing important aspects of protein structure taken into consideration when purifying a protein of interest. We will then provide guidelines for selecting appropriate purification methods and evaluating purity using qualitative and quantitative techniques. Part 1/3: https://youtu.be/QOJN8_hb834 Part 2/3: https://youtu.be/0ShO9RuNsF0 Part 3/3: https://youtu.be/PT0EP8bLT48https://static.igem.org/peertube/streaming-playlists/hls/70c7abd5-bc94-42e8-890b-f88fae6590da/d8e32e4d-4f45-4335-affb-4965cef54cf8-master.m3u8https://video.igem.org/videos/embed/eVJVdqsqEViZy7Yhcsw9gC17380432020-09-04T22:28:06.380ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/uF1gg93cVGguAMYD1Wsg44https://video.igem.org/lazy-static/thumbnails/94219389-9361-4723-b8f1-02ee58e4534b.jpgWeek #5A-1: Quantifying fluorescence and cell count with plate readers: Theory of fluorescenceMore info: https://2020.igem.org/Measurement/Webinars This webinar begins with a general introduction to fluorescence and OD, including a comparison of plate readers and other types of instruments, factors affecting fluorescence, and how to pick colors based on excitation and emission spectra. The second block of the webinar focuses on calibration of measurements for fluorescence and OD, and on debugging such measurements. Finally, we will end this session with a discussion of how to interpret and debug calibrated plate reader data. Part 1/3: https://youtu.be/bT71Ffu9UfE Part 2/3: https://youtu.be/Ic0Xfr685bA Part 3/3: https://youtu.be/hzRyocymke0https://static.igem.org/peertube/streaming-playlists/hls/e8320d39-d4cc-4bfa-8ad1-ec42ab5bab7d/30a74c97-3de1-4180-aeca-1481e88fb33f-master.m3u8https://video.igem.org/videos/embed/uF1gg93cVGguAMYD1Wsg4413800542020-09-04T17:14:29.680ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/cpoEeTAwQdnog2fAbbH5yQhttps://video.igem.org/lazy-static/thumbnails/624c0967-834a-4cbc-8043-130420a71a42.jpgWeek #5B-1: Cell-Free Systems - Intro to Cell-Free systems (advantages & versus in vivo)More info: https://2020.igem.org/Measurement/Webinars This webinar will cover Cell-free (CF) systems. These systems contain all of the cellular components necessary for transcription and/or translation, depending on the specific CF system being used. We will outline why this is an exciting area of research as well as how to use and make these systems. Part 1/3: https://youtu.be/I6XZi6bTBBY Part 2/3: https://youtu.be/h7cN2TZD-I4 Part 3/3: https://youtu.be/KnFs4IXTdRkhttps://static.igem.org/peertube/streaming-playlists/hls/5c5898a4-8699-4c03-9e3b-cc0e7e73f5c8/4fa96345-58d2-4b29-965f-f8811eeef6aa-master.m3u8https://video.igem.org/videos/embed/cpoEeTAwQdnog2fAbbH5yQ93401222020-09-04T18:10:56.410ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/gD58cPYZ14QkHeKpjnNCKphttps://video.igem.org/lazy-static/thumbnails/82d765dc-42ae-4c9f-80cb-2ebda28aa4f0.jpgWeek #7-3: CRISPR - gRNA DesignMore info: https://2020.igem.org/Measurement/Webinars Part 1/3: https://youtu.be/o0yo9uDBc5I Part 2/3: https://youtu.be/aixCtcTpepI Part 3/3: https://youtu.be/EHoee-rgvGwhttps://static.igem.org/peertube/streaming-playlists/hls/7ea6241a-00c0-43bf-97bf-6e8e4325b3e5/5cae1212-031f-49f4-a906-cc90cabde5ca-master.m3u8https://video.igem.org/videos/embed/gD58cPYZ14QkHeKpjnNCKp13140452020-09-04T21:35:03.470ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/1ZuY6yUVBfdRAatuiooyzHhttps://video.igem.org/lazy-static/thumbnails/12bf7b1f-3b5d-4a44-b620-42eae9efd118.jpgWeek #6A-3: Quantifying fluorescence and cell phenotypes with flow cytometryMore info: https://2020.igem.org/Measurement/Webinars This webinar begins with an introduction to flow cytometry, including how these instruments operate and the types of data that they produce. The second block of the webinar focuses on calibration of measurements for fluorescence and cell size, and on debugging such measurements. Finally, we will end this session with a discussion of how to interpret and debug calibrated flow cytometry data. Part 1/3: https://youtu.be/ODF-9L2FLbg Part 2/3: https://youtu.be/6jCxWe9QsUM Part 3/3: https://youtu.be/WOhPj5Csog0https://static.igem.org/peertube/streaming-playlists/hls/08073f1d-84cf-4fe2-8b8e-2f9f20ede613/7c755d69-4964-4e91-8a15-37682daee1e7-master.m3u8https://video.igem.org/videos/embed/1ZuY6yUVBfdRAatuiooyzH970092020-09-04T19:39:29.670ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/fV34ZD2q9Hsqpmsn1dxt87https://video.igem.org/lazy-static/thumbnails/d7166bb3-5f9c-4017-80c0-294cd5040eed.jpgWeek #7-2: CRISPR - Experimental techniquesMore info: https://2020.igem.org/Measurement/Webinars Part 1/3: https://youtu.be/o0yo9uDBc5I Part 2/3: https://youtu.be/aixCtcTpepI Part 3/3: https://youtu.be/EHoee-rgvGwhttps://static.igem.org/peertube/streaming-playlists/hls/78c7a2d2-ca11-4d83-a86a-c2cc95cf4a40/5cf7dc2d-e2d0-4183-b2d2-689cc6cca664-master.m3u8https://video.igem.org/videos/embed/fV34ZD2q9Hsqpmsn1dxt8711030462020-09-04T21:23:26.170ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/sufFkCi4CYdEKYekQrVqE5https://video.igem.org/lazy-static/thumbnails/f9019e9f-a278-43f0-aba5-aff3937d16c0.jpgWeek #6A-1: Quantifying fluorescence and cell phenotypes with flow cytometryMore info: https://2020.igem.org/Measurement/Webinars This webinar begins with an introduction to flow cytometry, including how these instruments operate and the types of data that they produce. The second block of the webinar focuses on calibration of measurements for fluorescence and cell size, and on debugging such measurements. Finally, we will end this session with a discussion of how to interpret and debug calibrated flow cytometry data. Part 1/3: https://youtu.be/ODF-9L2FLbg Part 2/3: https://youtu.be/6jCxWe9QsUM Part 3/3: https://youtu.be/WOhPj5Csog0https://static.igem.org/peertube/streaming-playlists/hls/d67f79fc-a5e9-4d03-b6ba-393ef04cb018/53275b44-cad0-4e55-b054-1e92126d17ae-master.m3u8https://video.igem.org/videos/embed/sufFkCi4CYdEKYekQrVqE517330262020-09-04T19:19:12.630ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/c13CtksvDKzbM9zaVfj3a7https://video.igem.org/lazy-static/thumbnails/43d66bcb-2fb1-4dbf-93c6-5eb9bf8b453b.jpgDry Lab Impulse #5: Sydney Australia 2019 - tool for generation of codon harmonised sequencesDry Lab Impulse Webinar Series by After iGEM Academia & Research Committee: https://2020.igem.org/Teams/Mentorship/Dry_Lab_Impulse Codonator 3000 - A web-based tool to generate codon harmonised sequences for any given input coding sequence. Speaker: Fahad Alihttps://static.igem.org/peertube/streaming-playlists/hls/59162534-0538-4553-a432-1e41f1bcb0e8/80604f55-0837-48d7-bd76-a70872e6390a-master.m3u8https://video.igem.org/videos/embed/c13CtksvDKzbM9zaVfj3a72099062021-04-17T21:47:26.725ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/vH6xegQdinMp7WUpEXYrUNhttps://video.igem.org/lazy-static/thumbnails/67c25697-3e05-45fa-9de3-9931d32454d9.jpgDry Lab Impulse #6: Team GO Paris-Saclay 2019 - Model for DNA-less cell fateDry Lab Impulse Webinar Series by After iGEM Academia & Research Committee: https://2020.igem.org/Teams/Mentorship/Dry_Lab_Impulse Mathematical model to describe DNA-free bacterial cells. Speaker: Guillaume Garnierhttps://static.igem.org/peertube/streaming-playlists/hls/f095edcb-90e1-4eef-b4fa-a0c75ea9c92a/3eed4235-337a-4b18-ba9a-fc4d3130d0e0-master.m3u8https://video.igem.org/videos/embed/vH6xegQdinMp7WUpEXYrUN1500072021-04-17T21:56:08.482ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/s6uBGvLE53FHG6aSBktnp9https://video.igem.org/lazy-static/thumbnails/4ca2688d-9535-423b-a776-bce8a0e6fc47.jpgDry Lab Impulse #7: Paris-Bettencourt'18 - Software for AMP design, optimization, predictionDry Lab Impulse Webinar Series by After iGEM Academia & Research Committee: https://2020.igem.org/Teams/Mentorship/Dry_Lab_Impulse AI based software for design and optimization of fusion AMPs; Model for AMP efficiency prediction and In-silico AMP design Speaker: Haotian Guohttps://static.igem.org/peertube/streaming-playlists/hls/d351f57c-a098-41af-97b0-bee6ec91d07a/31517030-58e0-4657-8c5c-e6857eddee5b-master.m3u8https://video.igem.org/videos/embed/s6uBGvLE53FHG6aSBktnp921970142021-04-17T22:03:37.368ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/4wejdirhPCUvKCNeqQ1nePhttps://video.igem.org/lazy-static/thumbnails/08730e30-41dc-402d-ac30-1dcd175d8a65.jpgVCL Americas Expert Panel #3: Pitching & Early-Stage FundingJoin us in welcoming Jason Kelly and Marc Martin-Casas for our third and final VCL panel!https://static.igem.org/peertube/streaming-playlists/hls/1c83ef22-ce33-44db-958e-46df99001b55/af51001d-1cf8-4c06-9968-689bf9e89110-master.m3u8https://video.igem.org/videos/embed/4wejdirhPCUvKCNeqQ1neP36310402021-04-29T01:07:05.731ZYESiGEM StartupsNOhttps://video.igem.org/w/wVghLVFHxT73CdtuaJYm1Shttps://video.igem.org/lazy-static/thumbnails/05f486b6-fd25-4c02-a372-22883def1407.jpgIntroduction: iGEM Diversity & Inclusion CommitteeIntroduction: iGEM Diversity & Inclusion Committeehttps://static.igem.org/peertube/streaming-playlists/hls/fa62007e-1d48-47cb-bc1e-c51fcfdb6d82/1843060c-ea5d-4367-bae6-d1cc59a99e5f-master.m3u8https://video.igem.org/videos/embed/wVghLVFHxT73CdtuaJYm1S6350702021-04-22T12:15:37.665ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/dn6ENhypsnuZj3fo6SZN9shttps://video.igem.org/lazy-static/thumbnails/6764a196-644f-4bf8-b628-df0865182b8f.jpgIntro: iGEM Engineering Committee's 2021 Summer Webinar SeriesIntro: iGEM Engineering Committee's 2021 Summer Webinar Serieshttps://static.igem.org/peertube/streaming-playlists/hls/641fc6d5-5a92-4f2e-844e-2d3bdfca910a/d01f1626-13ad-43f2-9d51-7585f0fbb7d8-master.m3u8https://video.igem.org/videos/embed/dn6ENhypsnuZj3fo6SZN9s3410842021-04-22T12:26:48.635ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/kqu8usdgfdHqgxoT9V9uhPhttps://video.igem.org/lazy-static/thumbnails/177e40e7-90e2-4528-a3fa-b58ce1c9a0b1.jpgHow to properly engage with stakeholders in Human practices? - Human Practices CommitteeHow to properly engage with stakeholders in Human practices? - Human Practices Committeehttps://static.igem.org/peertube/streaming-playlists/hls/9d48d1fa-1f69-4a60-a843-4488bca9b90f/d2a914d8-1099-4720-9a0e-0a0039be6867-master.m3u8https://video.igem.org/videos/embed/kqu8usdgfdHqgxoT9V9uhP54501222021-04-22T12:37:46.294ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/xaii4DyobsVPq32dJXruMwhttps://video.igem.org/lazy-static/thumbnails/88e07592-ef27-4af7-bad9-285b76bbe723.jpgThe Work in Progress Initiative - iGEM Ambassadors to AsiaThe Work in Progress Initiative - iGEM Ambassadors to Asiahttps://static.igem.org/peertube/streaming-playlists/hls/fc57a67a-d134-46df-96d3-9caa964dce58/a531b534-9ee5-4318-a71a-0f9ad7209034-master.m3u8https://video.igem.org/videos/embed/xaii4DyobsVPq32dJXruMw3120282021-04-22T12:42:50.908ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/631Wf8nLTj91pzDDRFn5W2https://video.igem.org/lazy-static/thumbnails/1ec8b09f-8c0e-487b-8f46-320ee5bdad44.jpgiGEM Reflections from Asia & Beyond - Asian AmbassadorsiGEM Reflections from Asia & Beyond - Asian Ambassadorshttps://static.igem.org/peertube/streaming-playlists/hls/28c5c1d7-c0ad-4fb5-b0a9-7e3ca7b609e5/1ccd96c7-21fc-42b9-838c-045094765c7b-master.m3u8https://video.igem.org/videos/embed/631Wf8nLTj91pzDDRFn5W26210212021-04-22T13:29:34.797ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/u7azEnDZ8drhgrLU5KVuV9https://video.igem.org/lazy-static/thumbnails/48b5880b-8e50-48d9-a1cf-381fce5c6b11.jpgAfrican iGEM Experience and How and Why to participate in iGEM - African AmbassadorsAfrican iGEM Experience and How and Why to participate in iGEM - African Ambassadorshttps://static.igem.org/peertube/streaming-playlists/hls/e39c3fcc-7e65-4227-a210-a8e1225e2872/0d7617c4-ffb8-411b-bbcf-54f734a1da32-master.m3u8https://video.igem.org/videos/embed/u7azEnDZ8drhgrLU5KVuV98660112021-04-23T16:54:38.460ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/t8FYw6Hvh9QhaVXWKL8SoKhttps://video.igem.org/lazy-static/thumbnails/e7f0720b-7158-4b3c-8534-f7fcab327ad6.jpgiGEM as a Fuel for Academia - Steering Group of Academia and Research NetworkiGEM as a Fuel for Academia - Steering Group of Academia and Research Networkhttps://static.igem.org/peertube/streaming-playlists/hls/dbb995d9-6a74-4be2-8bb5-a864b3e47fe7/f825d71a-6849-4c97-830a-7dfdc1dc10ac-master.m3u8https://video.igem.org/videos/embed/t8FYw6Hvh9QhaVXWKL8SoK5790212021-04-23T17:03:47.962ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/mfgWw8eKc871SWjGGvYfUPhttps://video.igem.org/lazy-static/thumbnails/c528c5d0-0d2b-493f-b39c-0bc9d5072915.jpgTop 5 Ways to Engage in Science Communication - Steering Group of Science Communication NetworkTop 5 Ways to Engage in Science Communication - Steering Group of Science Communication Networkhttps://static.igem.org/peertube/streaming-playlists/hls/a3f50264-96ac-4690-92ad-76b3442db97f/5f1f8595-046c-4981-b662-70ec6719d760-master.m3u8https://video.igem.org/videos/embed/mfgWw8eKc871SWjGGvYfUP5640542021-04-23T18:25:39.467ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/7t4woNr12TmnY6YvSNFMa5https://video.igem.org/lazy-static/thumbnails/357fa141-952a-4964-a645-5b6bf6aafed9.jpgWeek #2A-2: Modeling - Introduction to Hill FunctionsThis summer webinar series will focus on how to create an iGEM project. In the first weeks, we will go from ideation to finding and designing DNA sequences. We will introduce some of the basics of how to model systems and various molecular biology techniques. By the end of the summer, we will also go cover working with fluorescence and some more advanced molecular biology techniques. Presenters will include faculty, research scientists, and graduate students, most of whom will also be available for office hours during the summer. WEEK #2A: MODELLING - ODEs & HILL FUNCTION In this Modeling Webinar (Part I) we will go from ODEs (ordinary differential equations) and the law of mass action to Hill functions, their derivation, and how to use them to model the regulation of gene expression and inducible promoters. Additionally, we will explore Hill functions and explain the effects of parameters on activators, repressors, hybrid promoters, and the corresponding protein expression levels of GFP or any other reporter gene. Presented by Alejandro Vignoni Part 1/3: Modeling - ODEs Part 2/3: Introduction to Hill Functions https://youtu.be/_DoHHe3ZApc Part 3/3: Examples of Hill Functions https://youtu.be/51HLVS99QVohttps://static.igem.org/peertube/streaming-playlists/hls/345e15e3-95ac-4cb0-81c8-f0faec5359da/178418e8-0339-4360-bea9-fca621746db9-master.m3u8https://video.igem.org/videos/embed/7t4woNr12TmnY6YvSNFMa5173501112020-06-25T17:37:47.910ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/d48oyczQTTi6U4ZCUBuHRzhttps://video.igem.org/lazy-static/thumbnails/e942320d-b7ef-40cf-82e1-fc628d99f3c8.jpgWomen in STEM: Keynote Session Promo Video (iGEM Global Meetup)Together, let’s celebrate Women in Science! Join our Women in STEM keynote session, and hear inspiring stories of inclusion and impact from all over the world. iGEM Global Meetup Keynote August 20, 10:30-11:10 UTC https://2020.igem.org/Teams/Global_Meetup Speakers: Elena Rosca - Senior Lecturer at Ashesi University Catalina Lopez Correa - Executive Director of the Canadian COVID Genomics Network (CanCOGen), Co-Founder & Co-Leader Vancouver Node at Immigrant and International Women in Science (IWS) Heather Beem - CEO & Founder at Practical Education Network, Engineering Faculty at Ashesi University Aravinth Panch - Co-Founder & Director of Innovation at DreamSpace Academy Jingjing Wang - Senior Product Manager & Strategic Marketing at MGI Nadine Bongaerts - Senior Scientist Molecular Biology at GOURMEY, Board member at Hello Tomorrow, Co-founder at Science Mattershttps://static.igem.org/peertube/streaming-playlists/hls/619d72e3-ec11-4d53-b1e7-590d11807e8f/133a942c-5309-424a-957d-bf5623e352e3-master.m3u8https://video.igem.org/videos/embed/d48oyczQTTi6U4ZCUBuHRz820102021-04-23T21:56:46.448ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/iBrBtHUjCSVpkvbHrzCALChttps://video.igem.org/lazy-static/thumbnails/78932282-77fe-4b47-be8f-1b46831dc9ed.jpgWomen in STEM 2/7: Interview with Elena Rosca (by After iGEM Ambassadors)"This interview is part of a series on Women in STEM: https://2020.igem.org/Teams/Ambassadors/Women_In_STEM Together, let’s celebrate Women in Science! After an amazing “Women in STEM” Keynote Session at the iGEM Global Meetup, we now invite you to watch a complete interview with each one of our outstanding panelists. The main idea of this Interview Series is to inspire this and the next generations of women and girls, who are interested in science. Even more, we hope to encourage everyone, men and women, to go further in pursuing their careers in STEM (Science, Technology, Engineering, and Mathematics) and do not settle for less. We gathered speakers with diverse backgrounds and experience from different regions, all of them doing amazing jobs and leading their fields. Every week, join us and hear their inspiring stories of inclusion and impact from all over the world! Hosted by: After iGEM Ambassadors - Nemira Zilinskaite, Cibele Zolnier, Varsha Jaisimha, Nana Oye Djan, Melody Wu, Dorothy Zhang. Interview Schedule: - September 17th: Elena Rosca - September 24th: Catalina Lopez Correa - October 1st: Heather Beem - October 8th: Aravinth Panch - October 15th: Jingjing Wang - October 22nd: Nadine Bongaerts"https://static.igem.org/peertube/streaming-playlists/hls/8e9e2c45-687a-4823-9b76-72e421dfba74/f1e456bc-d5e2-4b06-bd7d-94d45e22955c-master.m3u8https://video.igem.org/videos/embed/iBrBtHUjCSVpkvbHrzCALC1819022021-04-23T22:11:02.936ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/qPUGFeae896CrdeXJt5QXehttps://video.igem.org/lazy-static/thumbnails/1a292da6-b30b-4029-b591-fb6f6ba26416.jpgWomen in STEM 3/7: Interview with Catalina Lopez Correa (by After iGEM Ambassadors)"This interview is part of a series on Women in STEM: https://2020.igem.org/Teams/Ambassadors/Women_In_STEM Together, let’s celebrate Women in Science! After an amazing “Women in STEM” Keynote Session at the iGEM Global Meetup, we now invite you to watch a complete interview with each one of our outstanding panelists. The main idea of this Interview Series is to inspire this and the next generations of women and girls, who are interested in science. Even more, we hope to encourage everyone, men and women, to go further in pursuing their careers in STEM (Science, Technology, Engineering, and Mathematics) and do not settle for less. We gathered speakers with diverse backgrounds and experience from different regions, all of them doing amazing jobs and leading their fields. Every week, join us and hear their inspiring stories of inclusion and impact from all over the world! Hosted by: After iGEM Ambassadors - Nemira Zilinskaite, Cibele Zolnier, Varsha Jaisimha, Nana Oye Djan, Melody Wu, Dorothy Zhang. Interview Schedule: - September 17th: Elena Rosca - September 24th: Catalina Lopez Correa - October 1st: Heather Beem - October 8th: Aravinth Panch - October 15th: Jingjing Wang - October 22nd: Nadine Bongaerts"https://static.igem.org/peertube/streaming-playlists/hls/c90bc36c-31cf-48b0-9d85-e34511034713/54bb7ff4-7f14-4873-b703-bf3019173b43-master.m3u8https://video.igem.org/videos/embed/qPUGFeae896CrdeXJt5QXe2097022021-04-23T22:24:21.536ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/7Hg4NaTybwR6LL3R1jMN5Whttps://video.igem.org/lazy-static/thumbnails/be695b1c-7b22-417f-b4c8-f79c2405efb2.jpgWomen in STEM 4/7: Interview with Heather Beem (by After iGEM Ambassadors)"This interview is part of a series on Women in STEM: https://2020.igem.org/Teams/Ambassadors/Women_In_STEM Together, let’s celebrate Women in Science! After an amazing “Women in STEM” Keynote Session at the iGEM Global Meetup, we now invite you to watch a complete interview with each one of our outstanding panelists. The main idea of this Interview Series is to inspire this and the next generations of women and girls, who are interested in science. Even more, we hope to encourage everyone, men and women, to go further in pursuing their careers in STEM (Science, Technology, Engineering, and Mathematics) and do not settle for less. We gathered speakers with diverse backgrounds and experience from different regions, all of them doing amazing jobs and leading their fields. Every week, join us and hear their inspiring stories of inclusion and impact from all over the world! Hosted by: After iGEM Ambassadors - Nemira Zilinskaite, Cibele Zolnier, Varsha Jaisimha, Nana Oye Djan, Melody Wu, Dorothy Zhang. Interview Schedule: - September 17th: Elena Rosca - September 24th: Catalina Lopez Correa - October 1st: Heather Beem - October 8th: Aravinth Panch - October 15th: Jingjing Wang - October 22nd: Nadine Bongaerts"https://static.igem.org/peertube/streaming-playlists/hls/36599c66-bec2-435e-b238-bd41af6948fe/39bcdc20-1e36-4870-bddd-bc93f0c23635-master.m3u8https://video.igem.org/videos/embed/7Hg4NaTybwR6LL3R1jMN5W1317022021-04-23T22:35:03.139ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/dRcXWpxCs3Y8jW58g7SBEhhttps://video.igem.org/lazy-static/thumbnails/f9a88764-1578-4d48-83b0-dd18b3e639c4.jpgWomen in STEM 5/7: Interview with Aravinth Panch (by After iGEM Ambassadors)"This interview is part of a series on Women in STEM: https://2020.igem.org/Teams/Ambassadors/Women_In_STEM Together, let’s celebrate Women in Science! After an amazing “Women in STEM” Keynote Session at the iGEM Global Meetup, we now invite you to watch a complete interview with each one of our outstanding panelists. The main idea of this Interview Series is to inspire this and the next generations of women and girls, who are interested in science. Even more, we hope to encourage everyone, men and women, to go further in pursuing their careers in STEM (Science, Technology, Engineering, and Mathematics) and do not settle for less. We gathered speakers with diverse backgrounds and experience from different regions, all of them doing amazing jobs and leading their fields. Every week, join us and hear their inspiring stories of inclusion and impact from all over the world! Hosted by: After iGEM Ambassadors - Nemira Zilinskaite, Cibele Zolnier, Varsha Jaisimha, Nana Oye Djan, Melody Wu, Dorothy Zhang. Interview Schedule: - September 17th: Elena Rosca - September 24th: Catalina Lopez Correa - October 1st: Heather Beem - October 8th: Aravinth Panch - October 15th: Jingjing Wang - October 22nd: Nadine Bongaerts"https://static.igem.org/peertube/streaming-playlists/hls/680c7b64-93fc-4c60-85a9-f1574f0f3ee8/000bd65a-d5e9-45a6-9998-07263c5df7b2-master.m3u8https://video.igem.org/videos/embed/dRcXWpxCs3Y8jW58g7SBEh2620002021-04-23T22:46:22.797ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/vG5rGKYiCx8cqyj2kuT49Jhttps://video.igem.org/lazy-static/thumbnails/ae410d59-ac14-44dd-8b31-cda85db15655.jpgWomen in STEM 6/7: Interview with Jingjing Wang (by After iGEM Ambassadors)"This interview is part of a series on Women in STEM: https://2020.igem.org/Teams/Ambassadors/Women_In_STEM Together, let’s celebrate Women in Science! After an amazing “Women in STEM” Keynote Session at the iGEM Global Meetup, we now invite you to watch a complete interview with each one of our outstanding panelists. The main idea of this Interview Series is to inspire this and the next generations of women and girls, who are interested in science. Even more, we hope to encourage everyone, men and women, to go further in pursuing their careers in STEM (Science, Technology, Engineering, and Mathematics) and do not settle for less. We gathered speakers with diverse backgrounds and experience from different regions, all of them doing amazing jobs and leading their fields. Every week, join us and hear their inspiring stories of inclusion and impact from all over the world! Hosted by: After iGEM Ambassadors - Nemira Zilinskaite, Cibele Zolnier, Varsha Jaisimha, Nana Oye Djan, Melody Wu, Dorothy Zhang. Interview Schedule: - September 17th: Elena Rosca - September 24th: Catalina Lopez Correa - October 1st: Heather Beem - October 8th: Aravinth Panch - October 15th: Jingjing Wang - October 22nd: Nadine Bongaerts"https://static.igem.org/peertube/streaming-playlists/hls/f0718297-c6f0-4992-98b1-1600c66a6f3e/a4422f70-fde8-4539-9849-0e26d4e4a810-master.m3u8https://video.igem.org/videos/embed/vG5rGKYiCx8cqyj2kuT49J1540042021-04-23T22:58:39.814ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/6Tj53a67AinhdgkKPDdWCehttps://video.igem.org/lazy-static/thumbnails/3dd597e8-bdd3-4917-a055-0008173a5698.jpgWomen in STEM 7/7: Interview with Nadine Bongaerts (by After iGEM Ambassadors)"This interview is part of a series on Women in STEM: https://2020.igem.org/Teams/Ambassadors/Women_In_STEM Together, let’s celebrate Women in Science! After an amazing “Women in STEM” Keynote Session at the iGEM Global Meetup, we now invite you to watch a complete interview with each one of our outstanding panelists. The main idea of this Interview Series is to inspire this and the next generations of women and girls, who are interested in science. Even more, we hope to encourage everyone, men and women, to go further in pursuing their careers in STEM (Science, Technology, Engineering, and Mathematics) and do not settle for less. We gathered speakers with diverse backgrounds and experience from different regions, all of them doing amazing jobs and leading their fields. Every week, join us and hear their inspiring stories of inclusion and impact from all over the world! Hosted by: After iGEM Ambassadors - Nemira Zilinskaite, Cibele Zolnier, Varsha Jaisimha, Nana Oye Djan, Melody Wu, Dorothy Zhang. Interview Schedule: - September 17th: Elena Rosca - September 24th: Catalina Lopez Correa - October 1st: Heather Beem - October 8th: Aravinth Panch - October 15th: Jingjing Wang - October 22nd: Nadine Bongaerts"https://static.igem.org/peertube/streaming-playlists/hls/2fa7c2e8-889f-46dc-9f7b-527519e7769d/955d83e5-96d5-4cd9-8b83-7e7272e09580-master.m3u8https://video.igem.org/videos/embed/6Tj53a67AinhdgkKPDdWCe1377022021-04-23T23:08:00.057ZsynbioYESiGEM CommunityNOhttps://video.igem.org/w/qwoHUWUESF9Ey2b6w3LBC5https://video.igem.org/lazy-static/thumbnails/4f8fdc19-0ae9-4939-b297-14d34739930d.jpgWeek #3A-3: Modeling - Example: Incoherent Feed-Forward LoopModeling Circuits with ODEs & Experimental Data Part 3/3: Example: Incoherent feed-forward loop (model & data) In this modeling webinar (Part II) we will focus on how to use the previously learned concepts to model genetic circuits with ODEs and Hill functions. A circuit that is capable of "sense-compute-act" is used as an example. Then, we will learn how to relate this model with experimental data from this genetic circuit. Finally, we will focus on a more complex circuit, the Incoherent feed-forward motif to compare the results obtained from the model and its experimental measurements, enriching this way the model and completing one turn of the DBTL cycle. Presented by Alejandro Vignoni Email: measurement AT igem DOT org Part 1/3: https://youtu.be/btq_YFJuCsw Part 2/3: https://youtu.be/-1UsZp1rbgA Part 3/3: https://youtu.be/I9ZZIu80nnwhttps://static.igem.org/peertube/streaming-playlists/hls/c699a4ee-5381-41a7-a0cf-32c520378718/f05362f7-16e1-4c51-8dbf-02d906d07cd1-master.m3u8https://video.igem.org/videos/embed/qwoHUWUESF9Ey2b6w3LBC514060382020-07-02T17:33:20.690ZsynbioYESiGEM WebinarsNOhttps://video.igem.org/w/sPA6dmpNcWBgQHEuqTTnkohttps://video.igem.org/lazy-static/thumbnails/e55f271f-3a9e-4e41-a6d4-3df5dc1c3a3f.jpgThe Expanding Future of Synthetic Biology Education - Steering Group of Education NetworkThe Expanding Future of Synthetic Biology Education - Steering Group of Education Networkhttps://static.igem.org/peertube/streaming-playlists/hls/d932922c-0042-4a16-9603-4bd7005dea80/882cdbca-e171-4acc-9423-8c83ee25302b-master.m3u8https://video.igem.org/videos/embed/sPA6dmpNcWBgQHEuqTTnko6440282021-04-24T04:59:09.652ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/7hcPztnG2hZ9owojR7V5F5https://video.igem.org/lazy-static/thumbnails/54026e2b-5bfd-493b-aa33-702cbbf949b8.jpgThe Rise of SynBio, from a Single Strand of DNA to a World of Possibilities - 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2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/29d0f010-2e95-438c-a512-a7c61c9f6ce6/19804ba3-1549-4781-96e1-8d40ff99e1de-master.m3u8https://video.igem.org/videos/embed/6autKLHA3KrxhkhcfcHtz92334052021-05-15T15:15:39.916ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/88yKvg5WUftu7ZGpTbji9Qhttps://video.igem.org/lazy-static/thumbnails/5b156307-bd7a-463d-b493-b97186ecf965.jpgDiscussing the iGEM Rollercoaster with AlumniLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/39be5c26-7b4b-403e-88cd-714839d8ba74/1c03abad-f72a-4fb1-897b-a11ea8fb0ba9-master.m3u8https://video.igem.org/videos/embed/88yKvg5WUftu7ZGpTbji9Q1984012021-05-15T14:23:04.060ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/6VqLZmxNaT7D9MaLPcdiqNhttps://video.igem.org/lazy-static/thumbnails/214b1002-1834-4ff5-ad48-e9168fc1abdb.jpgAre we still doing iGEM in the time of pandemic?Live 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2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/f5263100-f089-421f-abf2-dbd7c7c9b234/df5f05c6-bc85-4242-ab1f-7447dda1623a-master.m3u8https://video.igem.org/videos/embed/wgMerFPfsULS68HsUS2xZE2612012021-05-15T16:03:18.312ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/2fB7iwz5D6rKsV32M8i4LGhttps://video.igem.org/lazy-static/thumbnails/b39aad87-f422-4952-8f50-b16c972ad3f6.jpgEntrepreneurial Journey in iGEMLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/0a23301b-7e71-48a9-9ddc-ca0bdc1d8f04/754894e0-6faa-4070-b063-757d0592ae92-master.m3u8https://video.igem.org/videos/embed/2fB7iwz5D6rKsV32M8i4LG1990012021-05-15T16:13:30.807ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/6wssS5KhLY3JVUFV5HUzK5https://video.igem.org/lazy-static/thumbnails/15481c41-a9f7-4241-848f-5cae46b3f47e.jpgAn iGEM Failure StoryLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/2cbe509d-8a2f-4525-b1b7-f9c4222cac56/cb05faf3-f334-437d-b59b-48136fd113a6-master.m3u8https://video.igem.org/videos/embed/6wssS5KhLY3JVUFV5HUzK51917012021-05-15T16:21:43.486ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/8uqJuha5SbEMgXr8eqa1Kvhttps://video.igem.org/lazy-static/thumbnails/8961ce16-c13f-411f-9e56-6af21ac02471.jpg2015 Grand Prize Winner: William & MaryLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/3ca809c4-5145-40f4-904c-187538cb5b23/ba05c0f0-92c5-4225-b583-963161bd81ba-master.m3u8https://video.igem.org/videos/embed/8uqJuha5SbEMgXr8eqa1Kv1910032021-05-15T16:42:41.660ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/vaUu8wbx29zq3cT1tpTsLWhttps://video.igem.org/lazy-static/thumbnails/3ccbf649-2eb0-44e0-ab6d-e126d9f8f841.jpgDiscussing HP & TrustworthinessLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/ec3b0f62-7d4f-492f-b731-85d1a517a89e/603f17b1-fe6d-4303-9cdc-237759415cab-master.m3u8https://video.igem.org/videos/embed/vaUu8wbx29zq3cT1tpTsLW2263042021-05-16T14:19:17.666ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/k9nnNutnMzLtDmM93UyN7nhttps://video.igem.org/lazy-static/thumbnails/ffdc2ada-c85a-4576-9fdf-e61b1fce5b11.jpg2020 Grand Prize Winner: Vilnius-LithuaniaLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/9b08c210-3006-4534-8483-9b0885beb1e9/460c65cd-e08b-4421-9a53-c4b4bb683d5a-master.m3u8https://video.igem.org/videos/embed/k9nnNutnMzLtDmM93UyN7n1935052021-05-16T14:46:30.470ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/vLhFjH8XEdVBAGh3UdUP8ghttps://video.igem.org/lazy-static/thumbnails/dfa5c329-bd5c-4a09-ace7-9ba21f7d20ef.jpgNavigating the CompetitionLive zoom at the 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[Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/cf8c29fd-b171-412e-b373-1503d1d1ab80/fdce1cf1-5f91-4bbe-8ccc-8e9e4899236a-master.m3u8https://video.igem.org/videos/embed/rCtszSZTHfu8YWZzTbteto2285022021-05-16T16:25:55.653ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/b8aR5zcvTu6MwFmyy4sEqshttps://video.igem.org/lazy-static/thumbnails/b66c1951-5f0e-4cbf-895f-5ad0223fb5a1.jpgDistribution DiscussionsLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/51fba931-edc4-4849-8c94-1b35ca290522/0fbeb258-a9fd-43e0-a885-a2098d1f8430-master.m3u8https://video.igem.org/videos/embed/b8aR5zcvTu6MwFmyy4sEqs3744012021-05-16T17:12:05.393ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/jDNZrTn8speRMgHkbaZ32dhttps://video.igem.org/lazy-static/thumbnails/518a90d7-b124-4232-be5e-37b06f78838a.jpgBecome an iGEM JudgeLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/970bf969-7a18-4d78-85f0-9d1c0e065d86/391be6c7-dd73-40e2-b59f-dedbfc478a71-master.m3u8https://video.igem.org/videos/embed/jDNZrTn8speRMgHkbaZ32d2584052021-05-16T16:05:24.009ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/71hvANZwLbtodYigT6ZZNjhttps://video.igem.org/lazy-static/thumbnails/1d8b6c3f-f073-4471-bab3-5251c5d9e1f8.jpgThe Mentorship ProgramLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/30a101bf-2c63-4070-83bd-433c5a9faada/a9ef7ba6-1bf9-4494-93ee-f67e9fdc7843-master.m3u8https://video.igem.org/videos/embed/71hvANZwLbtodYigT6ZZNj2144032021-05-16T16:03:36.179ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/s52LVsM7SjrKoqGx5pUgvShttps://video.igem.org/lazy-static/thumbnails/25c302be-c67b-44ed-b8d9-0e97bc48de53.jpgHigh School iGEMLive zoom at the [Opening Weekend Festival 2021](https://festival.igem.io)https://static.igem.org/peertube/streaming-playlists/hls/d31dac7f-9ca4-48c8-9ae6-9a765018acb0/95709019-5db0-4b92-b4b5-4e32a6678305-master.m3u8https://video.igem.org/videos/embed/s52LVsM7SjrKoqGx5pUgvS1952042021-05-16T15:16:22.652ZYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/9iQ8sYL8VcuNC7cWCCePLwhttps://video.igem.org/lazy-static/thumbnails/19a00e3c-46a0-425b-825a-984a8a1fa48f.jpgiGEM Opening Weekend Festival (Day#1): Welcomehttps://festival.igem.io/ Nemanja Stijepovic - iGEM Vice President of Creative Productions Guilherme Kundlatsch - iGEM Producer Carolina Elizondo - Global Ambassador Coordinator Zeeshan Siddiqui - Director of Digital Science Journalismhttps://static.igem.org/peertube/streaming-playlists/hls/434669ea-eda1-4783-a772-534a8ce2c37a/40c49137-422e-4770-a479-fa11f1a31248-master.m3u8https://video.igem.org/videos/embed/9iQ8sYL8VcuNC7cWCCePLw7220692021-05-15T13:25:31.474ZsynbioYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/2jdJWgTucb8m1gJ2g3w5pBhttps://video.igem.org/lazy-static/thumbnails/50fc7d5e-7476-4a70-86e2-3e730b638b37.jpgLocal People Solving Local Problems - iGEM Opening Weekend Festival, Meagan Lizarazohttps://festival.igem.io/ Meagan Lizarazo Executive Vice President, iGEM Foundationhttps://static.igem.org/peertube/streaming-playlists/hls/0aa460c4-0af4-4bae-8cc7-52062ba17f59/f382bbda-338d-4da0-9183-359bb7745ef5-master.m3u8https://video.igem.org/videos/embed/2jdJWgTucb8m1gJ2g3w5pB42101242021-05-15T13:25:43.830ZsynbioYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/tBP6L5ZDEvSTLguWPrYRLqhttps://video.igem.org/lazy-static/thumbnails/729b8680-5d98-4d7a-a672-6d2caf7ba2f8.jpgVideos from iGEM Teams - Opening Weekend FestivalThank you to iGEM Nantes for sending this video! These features some teams from 2021, you can send us more videos to video at igem dot org.https://static.igem.org/peertube/streaming-playlists/hls/dfa6cd3f-a0b5-46d0-bbd0-bab9862ff024/bcbbc11c-e649-4a11-905c-6c82d7c545db-master.m3u8https://video.igem.org/videos/embed/tBP6L5ZDEvSTLguWPrYRLq8701752021-05-15T13:25:55.280ZsynbioYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/o9vssxuskYBUdgbM5MWT6fhttps://video.igem.org/lazy-static/thumbnails/f4ee7280-b5c4-467a-8583-c00f9c906d6d.jpgiGEM Ambassadors, Your Regional Champions: iGEM Opening Weekend Festivalhttps://festival.igem.io/ Dorothy Zhang, Director of Community Engagement at iGEMhttps://static.igem.org/peertube/streaming-playlists/hls/b3592758-0a60-422e-b6c5-9a449424d75c/fae7bc86-13ee-421c-865c-15e89bab0b2d-master.m3u8https://video.igem.org/videos/embed/o9vssxuskYBUdgbM5MWT6f3820652021-05-15T13:26:03.424ZsynbioYES2021 Opening Weekend FestivalNOhttps://video.igem.org/w/p3g7eYBDUjyLQYegDRjf7Fhttps://video.igem.org/lazy-static/thumbnails/927b1c9d-d85f-4b84-b014-95ce3d82188a.jpgThe iGEM Rollercoaster: It's not easy, but it's worth it! - 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Check them here: iGEM Opening Weekend Festival - festival.igem.org Team Grants - 2021.igem.org/Teams/Grants iGEM Podcasts - podcast.igem.org iGEM Global Slack Channel - 2021.igem.org/Teams/Slack Engineering Committee Webinar Series - 2021.igem.org/Engineering/Webinars Judging Hub - 2021.igem.org/Judging After iGEM | Journals - igem.org/After_iGEM/Journals Coffee With Ambassadors - https://igem.org/After_iGEM/Ambassador_Program/Coffee_with_Ambassadors And, of course, don't forget to check tv.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/095f3c5f-b2ea-4914-ba85-fbdc8ff6d53e/ad51a0d3-4ae5-4389-ae99-818a627c29f6-master.m3u8https://video.igem.org/videos/embed/2a89pFHFN25qhGsF2HCzV94540262021-06-05T14:52:27.030ZYESiGEM TVNOhttps://video.igem.org/w/t78gjoYm7a8LjFsXQcMwHFhttps://video.igem.org/lazy-static/thumbnails/68f9bb33-1b60-49bd-a8c9-2dcdbf1df5d1.jpgThe in’s and out’s of paper submission and publication | Academic Publishing Workshop SeriesThe in’s and out’s of paper submission and publication | Academic Publishing Workshop Serieshttps://static.igem.org/peertube/streaming-playlists/hls/db81aedf-3b20-434f-aa21-d19196f64621/3bb13baf-ce2e-41dc-a139-667f7281dcb4-master.m3u8https://video.igem.org/videos/embed/t78gjoYm7a8LjFsXQcMwHF27510382021-06-12T13:56:03.346ZYESiGEM CommunityNOhttps://video.igem.org/w/bMVx8CezcPHhnFfVBQ2yFihttps://video.igem.org/lazy-static/thumbnails/4d4a2b75-3fd8-4a0c-9a76-48a6e40043bb.jpgiGEM Talk Show (Ep#2) - ''After iGEM is about the Future"In our second episode, we talked with Dorothy Zhang, Director of Community Engagement at iGEM Foundation. 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By manipulating the lac operon and its regulatory components, we have created a fun and engaging teaching tool. Because of a color change, students will be able to visualize different DNA segments being expressed in different environments. Thanks to synthetic biology, educators and students alike will never struggle with the concept of gene regulation. [Wiki](https://2021.igem.org/Team:WLC-Milwaukee)https://static.igem.org/peertube/streaming-playlists/hls/09775c1a-1dac-4b08-b9cd-56e7ee7482bd/e8e57652-c05f-4a34-9277-4c19ca36c8a5-master.m3u8https://video.igem.org/videos/embed/2aNhPjZVqMBb6hJQqnmeX4980192021-07-23T08:16:48.431ZYES2021 Project PromotionsNOhttps://video.igem.org/w/n2FkfFjfQirYCiZqBCPXGrhttps://video.igem.org/lazy-static/thumbnails/778ed9c9-d186-418e-8567-df2c2fd1b4ff.jpgNorthern_BC: The Newfangled D-tector! (2021) - Project Promotion [English]**Title:** The Newfangled D-tector! **Description:** Vitamin D synthesis occurs through the exposure of skin to the sun’s UV rays; this process is severely curtailed in northern climates with limited sunlight levels. Vitamin D tests are expensive in our region, requiring the transport of blood samples to facilities with the necessary equipment. To address this issue, we are developing “D-tector”, a rapid, inexpensive, and sensitive vitamin D biosensor that may be implemented in local health facilities. [Wiki](https://2021.igem.org/Team:Northern_BC)https://static.igem.org/peertube/streaming-playlists/hls/aa4be511-ee02-4f75-95ba-5e9c75a731dd/c2dbbcb2-5c0a-41e4-9824-bb6eebc883c6-master.m3u8https://video.igem.org/videos/embed/n2FkfFjfQirYCiZqBCPXGr1200112021-07-23T08:37:55.243ZYES2021 Project PromotionsNOhttps://video.igem.org/w/vLHuTbyrfMePR2QVoFRFryhttps://video.igem.org/lazy-static/thumbnails/64b23a20-5ec2-4f56-a43a-8be0ddc31c99.jpgNEYCFLS_China: ANTI-Virus (2021) - Project Promotion [English]**Title:** ANTI-Virus **Description:** Argentum Nanoparticle Tie-Dyeing Indigo against Virus (ANTI-Virus), uses Ag nanoparticles along with indigo synthesized with the help of E.Coli, to effectively rid surface virus and bacterium, on clothing and masks. [Wiki](https://2021.igem.org/Team:NEYCFLS_China)https://static.igem.org/peertube/streaming-playlists/hls/f1175230-9e6c-4bd0-ba25-5faa972db35e/8533b789-63f8-4f21-ba66-390023ff9645-master.m3u8https://video.igem.org/videos/embed/vLHuTbyrfMePR2QVoFRFry1030452021-07-23T08:46:03.822ZYES2021 Project PromotionsNOhttps://video.igem.org/w/bihrzqUAT6cVoKcPa1anXRhttps://video.igem.org/lazy-static/thumbnails/5d34437a-0966-4574-a218-04e52e966c44.jpgiGEM Around the Globe (Ep #2) - Amazonas, BrazilIn the second episode of iGEM Around the Globe, we invite you to travel to the heart of the Amazon Forest and meet the Amazonas 2019 team. Join us to hear their adventures and their iGEM Journey! https://static.igem.org/peertube/streaming-playlists/hls/536529ad-2ee3-453d-af1f-719d326b0ae3/c98c77c9-99c7-4c95-97c9-94178743bff5-master.m3u8https://video.igem.org/videos/embed/bihrzqUAT6cVoKcPa1anXR10290142021-07-23T20:56:36.060ZYESiGEM TVNOhttps://video.igem.org/w/nK4dxvdvRmNyPeUgcDcDmUhttps://video.igem.org/lazy-static/thumbnails/170908a6-22c1-4981-9f29-9e3ef027e789.jpgAachen: Storagene - DNA-Based Data Storage (2021) - Project Promotion [English]**Title:** Storagene - DNA-Based Data Storage **Description:** Humanity faces the challenge of creating large amounts of data every day. We aim to improve the enzymatic DNA-synthesis – utilizing the terminal deoxynucleotidyl transferase (TdT) – to encode digital data on DNA and store it for millennia. We are working on unique solutions for synthesis improvement and providing both a hardware and software. [Wiki](https://2021.igem.org/Team:Aachen)https://static.igem.org/peertube/streaming-playlists/hls/b012e045-8e6f-4994-b3ff-868ccf773e98/abe164e0-db3e-49ee-9650-c4bb95a72d01-master.m3u8https://video.igem.org/videos/embed/nK4dxvdvRmNyPeUgcDcDmU120011722021-07-27T11:18:28.234ZDNADataYES2021 Project PromotionsNOhttps://video.igem.org/w/4g3dBaaefJs5LbHZtLUYykhttps://video.igem.org/lazy-static/thumbnails/748df1a5-5ab4-4faf-b161-31642f93a05f.jpgAalto-Helsinki: Gutlux: Shedding light on your gut (2021) - Project Promotion [English]**Title:** Gutlux: Shedding light on your gut **Description:** We are always surrounded by microbes and the human microbiota has many connections to our health. In particular, the gut microbiota has been associated with a variety of diseases, but the majority of the exact mechanisms remain unclear. Gutlux allows researchers to further explore the connections between the gut microbiota and health by targeting individual compounds that are connected to both the microbiota and a specific state of health. [Wiki](https://2021.igem.org/Team:Aalto-Helsinki)https://static.igem.org/peertube/streaming-playlists/hls/1a64f063-8dfe-4f7d-aed0-47c0e23df2b3/588dc0ab-6926-4fa1-836e-b23e46e1014a-master.m3u8https://video.igem.org/videos/embed/4g3dBaaefJs5LbHZtLUYyk11603262021-07-27T11:19:10.900ZmicrobiotamentalhealthYES2021 Project PromotionsNOhttps://video.igem.org/w/hbtYAWPgTdPFrtX2YQsehVhttps://video.igem.org/lazy-static/thumbnails/e4401424-8133-4414-812e-a0569d34366b.jpgAboa: The Lac Case: Aiding the Baltic Sea (2021) - Project Promotion [English]**Title:** The Lac Case: Aiding the Baltic Sea **Description:** Our aim is to aid the situation of the Baltic Sea by contributing to the development of a microbial wastewater treatment system for the degradation of pharmaceutical waste. We will particularly focus on the nonsteroidal anti-inflammatory drug diclofenac, which causes major environmental stress when released into bodies of water. Our project will involve the degradation of diclofenac to a less harmful compound through the synthetic production of laccase enzymes in modified microbes. [Wiki](https://2021.igem.org/Team:Aboa)https://static.igem.org/peertube/streaming-playlists/hls/8308e5a3-5d11-48ff-9131-638257432579/49d927c4-6fde-46d1-be60-ea4107bc57e8-master.m3u8https://video.igem.org/videos/embed/hbtYAWPgTdPFrtX2YQsehV12002332021-07-27T11:19:56.076ZAboaYES2021 Project PromotionsNOhttps://video.igem.org/w/iLHjH6fcDcay9dZP4EZbfkhttps://video.igem.org/lazy-static/thumbnails/acb95001-77e4-414a-b533-259c8f88e2e5.jpgABSI_Kenya: Chemical and Microbial Contaminants Biosensor and Biosurveillance of... (2021) - Proj...**Title:** Chemical and Microbial Contaminants Biosensor and Biosurveillance of Drinking Water In Low Income Communities In Africa **Description:** Almost Half of Kenya’s population lacks clean drinking water and this has proved to be a serious health crisis. ABSI is developing a biosensor that detects common chemical and biological contaminants that can be used by people from the comfort of their homes. The biosensor will apply common engineering principles to work, and this will be a great step for affected communities to fight waterborne illnesses. [Wiki](https://2021.igem.org/Team:ABSI_Kenya)https://static.igem.org/peertube/streaming-playlists/hls/8fe98c8d-5bf9-45c2-aaf6-203110855b0f/805f1647-bb78-4aba-8e7e-246dd0d9aa3f-master.m3u8https://video.igem.org/videos/embed/iLHjH6fcDcay9dZP4EZbfk9401062021-07-27T11:23:26.877ZYES2021 Project PromotionsNOhttps://video.igem.org/w/2jsdsufEWY6mCWStDGFEVghttps://video.igem.org/lazy-static/thumbnails/7721a2f2-462c-4b13-9fcf-1f29a6d76297.jpgACIBADEM_ISTANBUL: REP Diagnostics (2021) - Project Promotion [English]**Title:** REP Diagnostics **Description:** REP Diagnostics: Rapid Easy Point of Care Diagnostics by Combining Antigen Tests and Nucleic Acid Amplification [Wiki](https://2021.igem.org/Team:ACIBADEM_ISTANBUL)https://static.igem.org/peertube/streaming-playlists/hls/0aacae94-061d-4a68-89bc-bff3fe3ab1e1/6f7d815b-2c71-4058-ac02-9e2adb21a5b8-master.m3u8https://video.igem.org/videos/embed/2jsdsufEWY6mCWStDGFEVg580772021-07-27T11:23:56.351ZYES2021 Project PromotionsNOhttps://video.igem.org/w/tsjpcS2pNZZzRShSMd6bvShttps://video.igem.org/lazy-static/thumbnails/466aa18c-8be3-4151-8476-a9cb1b1bddbb.jpgAFCM-Egypt: Deep learning-assisted platform for modular vaccine design and deliv... (2021) - Proj...**Title:** Deep learning-assisted platform for modular vaccine design and delivery platform for cancer vaccines. **Description:** We are planning to develop an enhanced version of an alphavirus-based vaccine delivery vector. Directed evolution will be used through our deep-learning based approach to evolve improved versions of the EEV and SFV alphavirus vectors. We also aim at designing more potent promoters for the vector through computational design and testing. Creating full fitness landscapes for alphavirus regulatory proteins. [Wiki](https://2021.igem.org/Team:AFCM-Egypt)https://static.igem.org/peertube/streaming-playlists/hls/de536bd9-b4dc-4779-b1ba-63f9687c7f54/e5f42560-37d5-4774-b28e-564b330ff69d-master.m3u8https://video.igem.org/videos/embed/tsjpcS2pNZZzRShSMd6bvS12003662021-07-27T11:26:56.905ZegyptbreastcancerYES2021 Project PromotionsNOhttps://video.igem.org/w/kPx4jQo1Lou8v9Jomx89qshttps://video.igem.org/lazy-static/thumbnails/61cb76ef-ef8f-4ef2-94b9-64f8e0d6ec98.jpgAFCM-Egypt: Deep learning-assisted platform for modular vaccine design and delive... (2021) - Pro...**Title:** Deep learning-assisted platform for modular vaccine design and delivery platform for cancer vaccines. **Description:** We are planning to develop an enhanced version of an alphavirus-based vaccine delivery vector. Directed evolution will be used through our deep-learning based approach to evolve improved versions of the EEV and SFV alphavirus vectors. We also aim at designing more potent promoters for the vector through computational design and testing. Creating full fitness landscapes for alphavirus regulatory proteins. [Wiki](https://2021.igem.org/Team:AFCM-Egypt)https://static.igem.org/peertube/streaming-playlists/hls/a080bb42-9ab9-4285-b074-def052e043b2/778e487e-7d35-4aa4-8ae2-210c2dace333-master.m3u8https://video.igem.org/videos/embed/kPx4jQo1Lou8v9Jomx89qs1200202021-07-27T11:32:39.937ZbreastcanceregyptYES2021 Project PromotionsNOhttps://video.igem.org/w/hKgJsBqRwwjYFcQRGRJx8nhttps://video.igem.org/lazy-static/thumbnails/befc3f06-286e-4e18-9a40-909e8a6e502f.jpgAFCM-Egypt: Deep learning-assisted platform for modular vaccine design and delive... (2021) - Pro...**Title:** Deep learning-assisted platform for modular vaccine design and delivery platform for cancer vaccines. **Description:** We are planning to develop an enhanced version of an alphavirus-based vaccine delivery vector. Directed evolution will be used through our deep-learning based approach to evolve improved versions of the EEV and SFV alphavirus vectors. We also aim at designing more potent promoters for the vector through computational design and testing. Creating full fitness landscapes for alphavirus regulatory proteins. [Wiki](https://2021.igem.org/Team:AFCM-Egypt)https://static.igem.org/peertube/streaming-playlists/hls/879ce558-fd65-4381-a0d1-3cd629ff7fe7/7ba3812e-04a4-4d0b-86e4-55279dfd984a-master.m3u8https://video.igem.org/videos/embed/hKgJsBqRwwjYFcQRGRJx8n1200152021-07-27T11:44:13.879ZbreastcanceregyptYES2021 Project PromotionsNOhttps://video.igem.org/w/fpb9D4Fc7zAmQShMbPq4bihttps://video.igem.org/lazy-static/thumbnails/eebd0aa2-9975-4259-a5e7-a015e2873377.jpgAFCM-Egypt: Deep learning-assisted platform for modular vacc... (2021) - Project Promotion [Saudi...**Title:** Deep learning-assisted platform for modular vaccine design and delivery platform for cancer vaccines. **Description:** We are planning to develop an enhanced version of an alphavirus-based vaccine delivery vector. Directed evolution will be used through our deep-learning based approach to evolve improved versions of the EEV and SFV alphavirus vectors. We also aim at designing more potent promoters for the vector through computational design and testing. Creating full fitness landscapes for alphavirus regulatory proteins. [Wiki](https://2021.igem.org/Team:AFCM-Egypt)https://static.igem.org/peertube/streaming-playlists/hls/749c4d6e-213f-4aba-b4e0-9407f4135ef1/376949c8-af97-4fe9-8b1a-e63ebbacbf10-master.m3u8https://video.igem.org/videos/embed/fpb9D4Fc7zAmQShMbPq4bi1200162021-07-27T11:48:25.731ZbreastcanceregyptYES2021 Project PromotionsNOhttps://video.igem.org/w/inNydNKGi7TuwTnBoFR8ikhttps://video.igem.org/lazy-static/thumbnails/6db42748-2e4d-44c8-8e00-81b70882ac03.jpgAHUT_China: Breast cancer-targeting bacterial microrobot (2021) - Project Promotion [English]**Title:** Breast cancer-targeting bacterial microrobot **Description:** We aim to find a more effective way to treat breast cancer and provide new ideas for the diagnosis and treatment of other cancers through the specific research of breast cancer. [Wiki](https://2021.igem.org/Team:AHUT_China)https://static.igem.org/peertube/streaming-playlists/hls/8cb6aad1-3bfa-4d38-9a8f-97fb29e53901/a159da0d-3b06-45f9-8dc3-ee0d3a7b0894-master.m3u8https://video.igem.org/videos/embed/inNydNKGi7TuwTnBoFR8ik10501032021-07-27T11:49:10.734Z#ASIA#CHINA#THERAPEUTICSYES2021 Project PromotionsNOhttps://video.igem.org/w/oprXfAbeQU6maH9pqnNJCmhttps://video.igem.org/lazy-static/thumbnails/f43329bc-5d57-4ac7-9488-aad86cb4f4b4.jpgAISSU_Union: Memory Bread (2021) - Project Promotion [English]**Title:** Memory Bread **Description:** Our yeast(Saccharomyces cerevisiae) will be engineered to produce produce flavanols like naringenin and catechin, to improve people's ability of recognition and memory. We will add 8 gene to produce suitable enzyme for the production of flavanols. [Wiki](https://2021.igem.org/Team:AISSU_Union)https://static.igem.org/peertube/streaming-playlists/hls/b56f26ae-3409-49be-8717-9d9d3f7f4b64/59769457-bbc6-4100-9b41-0f0f8f52cfd3-master.m3u8https://video.igem.org/videos/embed/oprXfAbeQU6maH9pqnNJCm1200612021-07-27T11:52:46.874ZmemorybreadYES2021 Project PromotionsNOhttps://video.igem.org/w/8W5px4fYcugSgH71R5Y3Rehttps://video.igem.org/lazy-static/thumbnails/feaaa6df-91df-413c-8698-ecd2a17159ba.jpgAix-Marseille: ARBO-BLOCKK (2021) - Project Promotion [English]**Title:** ARBO-BLOCKK **Description:** We aim to develop an alternative solution to kill only mosquitoes infected by arboviruses. An Asaia strain, a bacterium from the mosquito gut microbiota, will be genetically modified to detect the presence of an arbovirus and thus produce toxins which are deadly to mosquito cells. [Wiki](https://2021.igem.org/Team:Aix-Marseille)https://static.igem.org/peertube/streaming-playlists/hls/403cd96f-b181-4fd8-ad46-e0964968c40f/fb190421-5e8f-4c72-973f-c2f7605e88f2-master.m3u8https://video.igem.org/videos/embed/8W5px4fYcugSgH71R5Y3Re1200642021-07-27T11:55:18.486ZMosquitoesMarseilleYES2021 Project PromotionsNOhttps://video.igem.org/w/em61Q6kw5uz9yD2JC7827Uhttps://video.igem.org/lazy-static/thumbnails/2cf5f1d8-875a-4e87-944b-3d905183f49d.jpgAlma: Poisoned River (2021) - Project Promotion [English]**Title:** Poisoned River **Description:** Over half a century ago, a chemical spill in our community left local waterways and soils filled with pollutants that have led to ecological trauma. This includes smaller bird populations, softer eggs, and the inability to reproduce. Our solution: create a biosensor that will be a cheap and effective way to increase screening measures to more effectively allocate resources and efforts to bring life back to our local community. [Wiki](https://2021.igem.org/Team:Alma)https://static.igem.org/peertube/streaming-playlists/hls/6c14c4a5-73ef-4278-b410-7a83e0797cac/2d0d0b19-a854-453d-892d-ea6e1c84fbf3-master.m3u8https://video.igem.org/videos/embed/em61Q6kw5uz9yD2JC7827U1040492021-07-27T11:59:43.646ZYES2021 Project PromotionsNOhttps://video.igem.org/w/bsXLd6jka8RXrk86ZSnJaahttps://video.igem.org/lazy-static/thumbnails/57c962b3-57cc-4f98-8247-2a8f931514d6.jpgASIJ_Tokyo: ABrCaDaBra (2021) - Project Promotion [English]**Title:** ABrCaDaBra **Description:** Breast cancer affects millions of people around the world. Despite advancements in technology, the lack of testing has caused breast cancer to emerge as a fatal disease. ASIJ_Tokyo presents ABrCaDaBra, an aptamer-based cancer detection test that is accessible and less invasive to women of all ages. [Wiki](https://2021.igem.org/Team:ASIJ_Tokyo)https://static.igem.org/peertube/streaming-playlists/hls/54bf16dc-c146-4158-95ef-74c352f666c3/357541a6-4f93-4786-b9fe-9476a6ccf68f-master.m3u8https://video.igem.org/videos/embed/bsXLd6jka8RXrk86ZSnJaa11801172021-07-27T12:00:14.820Z#Breast Cancer#DetectionYES2021 Project PromotionsNOhttps://video.igem.org/w/79aZYCx5g8GXakPLHVGdhohttps://video.igem.org/lazy-static/thumbnails/2083a855-74ca-4be1-879f-01a379679b40.jpgASIJ_Tokyo: ABrCaDaBra (2021) - Project Promotion [Japanese]**Title:** ABrCaDaBra **Description:** Breast cancer affects millions of people around the world. Despite advancements in technology, the lack of testing has caused breast cancer to emerge as a fatal disease. ASIJ_Tokyo presents ABrCaDaBra, an aptamer-based cancer detection test that is accessible and less invasive to women of all ages. [Wiki](https://2021.igem.org/Team:ASIJ_Tokyo)https://static.igem.org/peertube/streaming-playlists/hls/31baf1d0-8359-4e48-baa1-517f87b20c16/ad6577b6-4fca-4f88-b24f-edaf36931788-master.m3u8https://video.igem.org/videos/embed/79aZYCx5g8GXakPLHVGdho1050182021-07-27T12:00:41.759Z#Detection#Breast CancerYES2021 Project PromotionsNOhttps://video.igem.org/w/ipidy8mNcwfgLodbSWhdzLhttps://video.igem.org/lazy-static/thumbnails/fa57a3ae-6cd9-44ed-b1e3-f1a6b24e30ea.jpgASTWS-China: Enhanced “plastic eating” Biofilm system (2021) - Project Promotion [English]**Title:** Enhanced “plastic eating” Biofilm system **Description:** To solve the plastics pollution, we genetically modify E.coli to make it able to biodegrade PET into harmless final products. PETase and MHETase are introduced into E. Coli. Also, we introduce OmpR gene to strengthen the biofilm to increase the degradation efficiency and help capture nanoplastics. [Wiki](https://2021.igem.org/Team:ASTWS-China)https://static.igem.org/peertube/streaming-playlists/hls/8cec12ed-dea5-49e8-b419-25012e2298f6/886fc20b-a9c1-432f-ad25-01063914553e-master.m3u8https://video.igem.org/videos/embed/ipidy8mNcwfgLodbSWhdzL1210922021-07-27T12:01:10.224ZmicroplasticspetaseYES2021 Project PromotionsNOhttps://video.igem.org/w/ajK17MyGAoQMS3CtpQRGg7https://video.igem.org/lazy-static/thumbnails/035a26b8-9d6b-43ba-8757-2abaa61cf7a0.jpgASU: Chlamydomon[As] (2021) - Project Promotion [English]**Title:** Chlamydomon[As] **Description:** Arsenic contamination in groundwater is a serious issue facing rural communities in the United States. Exposure to high arsenic levels can cause cancer, vascular damage, and liver failure. We propose to engineer the microalgae Chlamydomonas reinhardtii into a tool that can clean arsenic from drinking water. This will allow the arsenic to be removed from drinking water via a filtration system we are also designing, thereby providing a sustainable synthetic biology based water treatment system. [Wiki](https://2021.igem.org/Team:ASU)https://static.igem.org/peertube/streaming-playlists/hls/4b802301-08fa-4289-adba-aa6a39aa43d4/ac7d7c7e-fd98-406a-b583-ed3000dc1a80-master.m3u8https://video.igem.org/videos/embed/ajK17MyGAoQMS3CtpQRGg71020712021-07-27T12:01:54.993ZChlamydomonasBioremediationYES2021 Project PromotionsNOhttps://video.igem.org/w/3sr4JRJ4MMKoiB5A6o1kuJhttps://video.igem.org/lazy-static/thumbnails/814ce45d-6e8c-42a9-a6a5-85243786b382.jpgAthens: AdAPTED: Augmenting dNTPs And Polymerase Through Enzymatic Design (2021) - Project Promot...**Title:** AdAPTED: Augmenting dNTPs And Polymerase Through Enzymatic Design **Description:** We are iGEM Athens and through our project AdAPTED we hope to enable the easy, affordable, sustainable and decentralized production of PCR reagents. We are designing a genetic circuit that overexpresses the enzymes responsible for the de novo production of dNTPs along with a thermostable polymerase. Our goal is to enhance the production of the main components of nucleic acid amplification techniques, so that they can be performed promptly and efficiently in a future emergency. [Wiki](https://2021.igem.org/Team:Athens)https://static.igem.org/peertube/streaming-playlists/hls/13e30fd6-5f6d-4f6f-a56d-6eb58b7b472e/20900a2e-b9be-427e-8906-9a2bb585254a-master.m3u8https://video.igem.org/videos/embed/3sr4JRJ4MMKoiB5A6o1kuJ12007872021-07-27T12:04:53.903ZEurope_GreeceNewApplicationYES2021 Project PromotionsNOhttps://video.igem.org/w/wTWE8t4wMYGnLzQ7xQwTo3https://video.igem.org/lazy-static/thumbnails/0a53fcbe-3ce1-4e71-8517-599655189f12.jpgAustin_UTexas: Fighting Plastic and Oil Pollution with Phage (2021) - Project Promotion [English]**Warning:** This video has a distracting watermark. These should be removed for next time. **Title:** Fighting Plastic and Oil Pollution with Phage **Description:** Each year our fight against waterway pollutants grows more and more fierce. There are an estimated 5.25 trillion pieces of plastic in our oceans, and millions of gallons of crude oil are spilled in waterways yearly. In order to address this problem, the UT Austin iGEM team has devised a novel method of cleaning the ocean. Using marine bacteria and the tools of genetic engineering, we plan to “hack” bacteria to produce plastic-degrading and surfactant proteins. [Wiki](https://2021.igem.org/Team:Austin_UTexas)https://static.igem.org/peertube/streaming-playlists/hls/fa32c6a0-5a0a-450a-8110-5f9bbd8bcfba/d5f0bfc1-e3fb-4b1e-b867-09e8621d69d0-master.m3u8https://video.igem.org/videos/embed/wTWE8t4wMYGnLzQ7xQwTo31190732021-07-27T12:05:31.247ZYES2021 Project PromotionsNOhttps://video.igem.org/w/qcj8RZ6nvV6EeAFJMHyBAGhttps://video.igem.org/lazy-static/thumbnails/20e13174-84da-46df-97b0-a5d41cbf110e.jpgBaltimore_BioCrew: JoyBiotic (2021) - Project Promotion [English]**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** JoyBiotic **Description:** The 2021 Baltimore Biocrew is developing a psychobiotic product to help relieve the symptoms of mental illnesses including depression and anxiety. This psychobiotic will increase the production of serotonin, a neurotransmitter implicated in mental illnesses. As adolescents who’ve endured a worldwide pandemic, we understand firsthand the toll COVID-19 and social isolation has taken on all of us, and we want to help disadvantaged communities who don’t have easy access to mental health treatment. [Wiki](https://2021.igem.org/Team:Baltimore_BioCrew)https://static.igem.org/peertube/streaming-playlists/hls/c3efaf8c-8e4b-4f33-9fc2-65a40a1b6178/2378eaaf-881c-4976-afca-164fa4ab6ed7-master.m3u8https://video.igem.org/videos/embed/qcj8RZ6nvV6EeAFJMHyBAG1200572021-07-27T12:06:10.095ZprobioticmentalhealthYES2021 Project PromotionsNOhttps://video.igem.org/w/oeYU797dh6uVY9dPSWa6ouhttps://video.igem.org/lazy-static/thumbnails/c8127306-c084-45c3-a5fd-a4a7f8e6a31f.jpgBeijing_United: Fermentation of wheat B-starch to produce alcohol (2021) - Project Promotion [Eng...**Title:** Fermentation of wheat B-starch to produce alcohol **Description:** Wheat starch-B is the by-product during the wheat deep processing, which is often used as feed with low added value. We plans to construct a multi-functional yeast, which can decompose the pentosan in starch-B and be directly applied for alcoholic fermentation, turning waste into treasure. [Wiki](https://2021.igem.org/Team:Beijing_United)https://static.igem.org/peertube/streaming-playlists/hls/b41cc8ce-76a4-4e3c-922d-482ba7896c94/60cb6115-6b52-4ae1-a76a-aff253add937-master.m3u8https://video.igem.org/videos/embed/oeYU797dh6uVY9dPSWa6ou840412021-07-27T12:06:33.777ZYES2021 Project PromotionsNOhttps://video.igem.org/w/kWyAq1tKmc8ZKxjp1cAk86https://video.igem.org/lazy-static/thumbnails/709c388c-75e6-4ab2-ab5c-062b3a01bcbb.jpgBielefeld-CeBiTec: P.L.A.N.T. - Plantbased Ligand Activated Noxious agent Tracker (2021) - Projec...**Title:** P.L.A.N.T. - Plantbased Ligand Activated Noxious agent Tracker **Description:** Sites contaminated with chemical weapons from World War II are still a huge problem. To tackle the problem we designed a plant that turns bright red when taking up degradation products of chemical weapons. This way contaminated soils can be cleaned, preventing further spread in the environment. [Wiki](https://2021.igem.org/Team:Bielefeld-CeBiTec)https://static.igem.org/peertube/streaming-playlists/hls/a17be26d-61ab-4af2-9892-74add3751a07/e22062fc-9d10-4b24-aa88-aad1664de7d0-master.m3u8https://video.igem.org/videos/embed/kWyAq1tKmc8ZKxjp1cAk8612001772021-07-27T12:09:32.088ZP.L.A.N.T.PHOTOTROPHYES2021 Project PromotionsNOhttps://video.igem.org/w/tVBM8vbD5fSc1MZRtmwynVhttps://video.igem.org/lazy-static/thumbnails/7e9b668f-500a-414c-a0b9-81b2c0601639.jpgBilkent_UNAM: MONDES (2021) - Project Promotion [English]**Title:** MONDES **Description:** Our project is to develop a Modular Neuronal Delivery System - aka MONDES - which can be used as a therapeutic tool against Spinal Muscular Atrophy (SMA), a potentially-lethal rare disease. MONDES is a novel neuron-specific chimeric toxin platform for protein delivery which utilizes toxin parts for targeted neuronal delivery. [Wiki](https://2021.igem.org/Team:Bilkent_UNAM)https://static.igem.org/peertube/streaming-playlists/hls/e2233671-0eab-4d77-9c47-2a1d6cdf3907/d8f1df91-e255-4abf-a100-c43dbf66d841-master.m3u8https://video.igem.org/videos/embed/tVBM8vbD5fSc1MZRtmwynV1150322021-07-27T12:14:10.622ZProtein DeliverySMAYES2021 Project PromotionsNOhttps://video.igem.org/w/7hTAxHmWxNH9DPZtDjV2sihttps://video.igem.org/lazy-static/thumbnails/8fc93601-90bb-4869-b369-02c014c12bf1.jpgBilkent_UNAM: MONDES (2021) - Project Promotion [Albanian]**Title:** MONDES **Description:** Our project is to develop a Modular Neuronal Delivery System - aka MONDES - which can be used as a therapeutic tool against Spinal Muscular Atrophy (SMA), a potentially-lethal rare disease. MONDES is a novel neuron-specific chimeric toxin platform for protein delivery which utilizes toxin parts for targeted neuronal delivery. [Wiki](https://2021.igem.org/Team:Bilkent_UNAM)https://static.igem.org/peertube/streaming-playlists/hls/32f2877a-e912-4db6-87c1-f57e285240e1/38489342-8c88-4f6a-8c27-c2026e3c92ca-master.m3u8https://video.igem.org/videos/embed/7hTAxHmWxNH9DPZtDjV2si115032021-07-27T12:17:57.324ZSMAProtein DeliveryYES2021 Project PromotionsNOhttps://video.igem.org/w/wpPKMk46jsmGUQ25rMAU6thttps://video.igem.org/lazy-static/thumbnails/20f81069-5a89-4066-989e-60a3795ded9a.jpgBilkent_UNAM: MONDES (2021) - Project Promotion [French]**Title:** MONDES **Description:** Our project is to develop a Modular Neuronal Delivery System - aka MONDES - which can be used as a therapeutic tool against Spinal Muscular Atrophy (SMA), a potentially-lethal rare disease. MONDES is a novel neuron-specific chimeric toxin platform for protein delivery which utilizes toxin parts for targeted neuronal delivery. [Wiki](https://2021.igem.org/Team:Bilkent_UNAM)https://static.igem.org/peertube/streaming-playlists/hls/f645b24c-c761-4a47-a317-62c4cf1029cd/27ce69f4-a839-4d71-b729-bf3b5ece2113-master.m3u8https://video.igem.org/videos/embed/wpPKMk46jsmGUQ25rMAU6t115032021-07-27T12:22:38.439ZProtein DeliverySMAYES2021 Project PromotionsNOhttps://video.igem.org/w/xqxjuvK2BJPyTYWHpcSihRhttps://video.igem.org/lazy-static/thumbnails/80e10c84-17c6-46c9-891a-e4fa0c2c5f2c.jpgBilkent_UNAM: MONDES (2021) - Project Promotion [Turkish]**Title:** MONDES **Description:** Our project is to develop a Modular Neuronal Delivery System - aka MONDES - which can be used as a therapeutic tool against Spinal Muscular Atrophy (SMA), a potentially-lethal rare disease. MONDES is a novel neuron-specific chimeric toxin platform for protein delivery which utilizes toxin parts for targeted neuronal delivery. [Wiki](https://2021.igem.org/Team:Bilkent_UNAM)https://static.igem.org/peertube/streaming-playlists/hls/fe787329-4888-4f24-a35e-ee41bca7b555/72524ace-e693-4d14-bde3-96d5855f8b9a-master.m3u8https://video.igem.org/videos/embed/xqxjuvK2BJPyTYWHpcSihR115062021-07-27T12:25:24.983ZProtein DeliverySMAYES2021 Project PromotionsNOhttps://video.igem.org/w/iMMCBzkN2KVbRgUmix4Pm6https://video.igem.org/lazy-static/thumbnails/0159d472-1c89-4d2f-84c4-2982eb0b2ff4.jpgBIT: ESC-Using MicroRNAs and Slipped Chip for Early Screening of Colorectal Cancer (2021) - Proje...**Title:** ESC-Using MicroRNAs and Slipped Chip for Early Screening of Colorectal Cancer **Description:** Colorectal cancer（CRC）is a kind of malignant tumor.Existing diagnostic methods for CRC have some shortcomings which prevent them from being used for early screening.We decide to use CRISPR CAS, RCA and some creative technologies of hardware part to achieve the purpose of Auxiliary diagnosis for CRC. [Wiki](https://2021.igem.org/Team:BIT)https://static.igem.org/peertube/streaming-playlists/hls/900ff2b9-0920-4076-9103-cbe4766a4931/e60a20d7-b22d-4907-949a-1dfea748fe33-master.m3u8https://video.igem.org/videos/embed/iMMCBzkN2KVbRgUmix4Pm61200592021-07-27T12:26:56.971ZColorectal cancerAuxiliary diagnosisYES2021 Project PromotionsNOhttps://video.igem.org/w/9FgKTwgLX4gD3kMoZdsu7Hhttps://video.igem.org/lazy-static/thumbnails/ba10261a-a3fb-41b4-bcb9-3dee4c2f0e1f.jpgBIT-China: Creative Tasting Officer (2021) - Project Promotion [English]**Title:** Creative Tasting Officer **Description:** We are developing a sensitive and convenient biosensor, using engineered yeast cells to detect the degree of different flavors of umami, sweetness and bitterness. Our project aims at achieving the so-called “taste freedom”: to help people find their "favorite" taste combinations with Flavor Card App, to provide plant-derived seasonings which exactly match what they like, and to ‘taste’ and evaluate different potentials using smart yeast cells. [Wiki](https://2021.igem.org/Team:BIT-China)https://static.igem.org/peertube/streaming-playlists/hls/4644d3a3-cdf4-453d-9fd3-915534ef2be5/89cf1dcf-20ae-4024-995e-349bad3d608e-master.m3u8https://video.igem.org/videos/embed/9FgKTwgLX4gD3kMoZdsu7H1200612021-07-27T12:32:36.013ZChina New applicationYES2021 Project PromotionsNOhttps://video.igem.org/w/mFkPggn5CLMi5AknGZuwURhttps://video.igem.org/lazy-static/thumbnails/d4e7619a-4a32-4942-b403-af0b2acde7f0.jpgBJ101ID: Happy Recycle Paper (2021) - Project Promotion [English]**Title:** Happy Recycle Paper **Description:** We are the iGEM team from Beijing 101 Middle School. Our team is going to use sericin, chitosan and other substances to make recycled paper more pragmatic, higher efficiency and lower cost. As for our promotion video, the animation is hand-drawn and voiced over through recordings by our teammates. [Wiki](https://2021.igem.org/Team:BJ101ID)https://static.igem.org/peertube/streaming-playlists/hls/a774fdd8-8421-4ea6-8f55-f50571ec9ce1/b8a15c8a-94d0-4fc6-b3d8-0d2619b41774-master.m3u8https://video.igem.org/videos/embed/mFkPggn5CLMi5AknGZuwUR1190202021-07-27T12:33:20.821ZEnvironment RecycleYES2021 Project PromotionsNOhttps://video.igem.org/w/5GArvMGEmeTCCDzBETZmtvhttps://video.igem.org/lazy-static/thumbnails/e4474163-466c-489c-8a45-8c40e8c846c2.jpgBJEA_China: Increasing Activity of Enzyme to Biodegrade Plastics (2021) - Project Promotion [Engl...**Title:** Increasing Activity of Enzyme to Biodegrade Plastics **Description:** Our team promotion video introduces the background of our project. Base on the facts, our group decides to enhance the activity of mLCC by proceeding two approaches, which are constructing a fusion protein of mLCC and hydrophobins and using the technique of Bacillus subtilis surface display. We hope to make some contributions to the degradation of plastics. [Wiki](https://2021.igem.org/Team:BJEA_China)https://static.igem.org/peertube/streaming-playlists/hls/260f879f-64d8-4b74-bb78-c61eb963aa23/65e57c75-25e1-45cf-814c-4547ddbd47bf-master.m3u8https://video.igem.org/videos/embed/5GArvMGEmeTCCDzBETZmtv1070542021-07-27T12:33:59.133ZYES2021 Project PromotionsNOhttps://video.igem.org/w/i9jzEescRWkk2SkkF8d4WPhttps://video.igem.org/lazy-static/thumbnails/06449e22-2d11-4508-af5a-7e52df07f105.jpgBJU_China: Indyego (2021) - Project Promotion [English]**Title:** Indyego **Description:** We use genetically modified Escherichia coli to produce derivatives of indigo such as Tyrian purple, forming indigo dyes without generating large amounts of wastewater and harmful chemicals. Meanwhile we will use Tyrian purple to produce bio semiconductor material. [Wiki](https://2021.igem.org/Team:BJU_China)https://static.igem.org/peertube/streaming-playlists/hls/8ad4c206-bd9a-4f8b-8d3b-61b4b4dc22c7/81168c5f-5042-47fc-acfb-b972d90f7cf3-master.m3u8https://video.igem.org/videos/embed/i9jzEescRWkk2SkkF8d4WP10809422021-07-27T12:34:44.387ZEnvironmentTyrianPurpleYES2021 Project PromotionsNOhttps://video.igem.org/w/tB1zS41mu5ZcrmNuVidaCzhttps://video.igem.org/lazy-static/thumbnails/e8228ca2-3c51-44a3-bf7b-a788ba611d23.jpgBNDS_China: Modified Metabolic Pathway for Rhamnolipids Synthesis using Directed... (2021) - Proj...**Title:** Modified Metabolic Pathway for Rhamnolipids Synthesis using Directed Evolution **Description:** Rhamnolipid is an important biosurfactant that has been used extensively in place of its chemically synthesized counterparts. In our project, we aimed to produce a large amount of Rhamnolipid by using E. coli instead of P. aeruginosa, a pathogen, and with protein scaffold and directed evolution. [Wiki](https://2021.igem.org/Team:BNDS_China)https://static.igem.org/peertube/streaming-playlists/hls/df8a22b5-239e-43ad-a4d4-778f0dead49d/7a43c033-242f-4c0c-87c8-271943fe11cd-master.m3u8https://video.igem.org/videos/embed/tB1zS41mu5ZcrmNuVidaCz1170822021-07-27T12:37:10.514ZRhamnolipidDirected EvolutionYES2021 Project PromotionsNOhttps://video.igem.org/w/u5dDYRwud2bYMRoED2kfNahttps://video.igem.org/lazy-static/thumbnails/68495ecf-4f89-4620-b3b2-75c515f54938.jpgBNU-China: A Cheater-proof System (2021) - Project Promotion [English]**Title:** A Cheater-proof System **Description:** In some natural colonies, microorganisms cooperate with each other by sharing essential substances. However, some “cheaters” who use public resources without synthesis emerge in the process of evolution. When cheaters appear in the industrial production, it may cause a loss in both quality and quantity of the products. To solve this problem, BNU-China develops a “cheater-proof” platform for industrial production by introducing automatically switchable "guards" into the system. [Wiki](https://2021.igem.org/Team:BNU-China)https://static.igem.org/peertube/streaming-playlists/hls/e356a808-5001-4801-a6fa-64db65c85815/c126aacb-7aee-44c3-b928-2d95b449e224-master.m3u8https://video.igem.org/videos/embed/u5dDYRwud2bYMRoED2kfNa1200572021-07-27T12:38:26.904ZYES2021 Project PromotionsNOhttps://video.igem.org/w/gaP8wBWxD2koedw6m8rPtFhttps://video.igem.org/lazy-static/thumbnails/5518a07b-eaa5-43ee-b81e-2732db3503a9.jpgBNUZ-China: E.Coli Keen Doctor (2021) - Project Promotion [English]**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** E.Coli Keen Doctor **Description:** The project which BNUZ-China team planed to do this year is taking E.coli Nissle 1917 as the basal disc creatures to develop a new intestinal engineering bacteria to treat CKD. [Wiki](https://2021.igem.org/Team:BNUZ-China)https://static.igem.org/peertube/streaming-playlists/hls/7ad7d18f-8246-4e9f-abc5-107e67bd41f9/420462f2-bd5c-480a-ad42-ee450ba32022-master.m3u8https://video.igem.org/videos/embed/gaP8wBWxD2koedw6m8rPtF1200472021-07-27T12:38:55.669ZE.coliCKDYES2021 Project PromotionsNOhttps://video.igem.org/w/rnE63Y2v8cmgjTbFx3Kbfrhttps://video.igem.org/lazy-static/thumbnails/145e76e1-c635-47a3-9197-9ee71584dea8.jpgBOKU-Vienna: Friendzyme (2021) - Project Promotion [English]**Title:** Friendzyme **Description:** Friendzyme is taking oral enzyme therapy to the next level! To help people with Irritable Bowel Syndrome, we designed a therapeutic platform where lactobacilli are enclosed in a biocompatible, mucoadhesive scaffold, delivering fructan-degrading enzymes long-term and right where they are needed. [Wiki](https://2021.igem.org/Team:BOKU-Vienna)https://static.igem.org/peertube/streaming-playlists/hls/cd7a8ec3-9835-43bc-9757-4716f7ed13a5/adc80f6c-90eb-46a7-9217-de608cb8da22-master.m3u8https://video.igem.org/videos/embed/rnE63Y2v8cmgjTbFx3Kbfr1200632021-07-27T12:41:17.909ZenzymetherapyfodmapsYES2021 Project PromotionsNOhttps://video.igem.org/w/kyQx997sLi4J52Yx3cTvRGhttps://video.igem.org/lazy-static/thumbnails/45b74288-bd04-4068-bd26-c58b168602e6.jpgBOKU-Vienna: Friendzyme (2021) - Project Promotion [German]**Title:** Friendzyme **Description:** Friendzyme is taking oral enzyme therapy to the next level! To help people with Irritable Bowel Syndrome, we designed a therapeutic platform where lactobacilli are enclosed in a biocompatible, mucoadhesive scaffold, delivering fructan-degrading enzymes long-term and right where they are needed. [Wiki](https://2021.igem.org/Team:BOKU-Vienna)https://static.igem.org/peertube/streaming-playlists/hls/9e7358dc-1de9-4e53-93e8-8856bac31ffe/77fc1a13-f3e4-4f03-8b1d-9ffc9f322aff-master.m3u8https://video.igem.org/videos/embed/kyQx997sLi4J52Yx3cTvRG1200122021-07-27T12:42:26.283ZenzymetherapyfodmapsYES2021 Project PromotionsNOhttps://video.igem.org/w/tob8k1KKV8NUtA9vS1YxWshttps://video.igem.org/lazy-static/thumbnails/136899a2-aef1-44cc-a143-668af902d0aa.jpgBOKU-Vienna: Friendzyme (2021) - Project Promotion [Korean]**Title:** Friendzyme **Description:** Friendzyme is taking oral enzyme therapy to the next level! To help people with Irritable Bowel Syndrome, we designed a therapeutic platform where lactobacilli are enclosed in a biocompatible, mucoadhesive scaffold, delivering fructan-degrading enzymes long-term and right where they are needed. [Wiki](https://2021.igem.org/Team:BOKU-Vienna)https://static.igem.org/peertube/streaming-playlists/hls/ddbf58eb-3c86-46b4-b232-9ab5cf530ef2/5fcc4763-ab53-41a5-b943-6f6a760e590b-master.m3u8https://video.igem.org/videos/embed/tob8k1KKV8NUtA9vS1YxWs120042021-07-27T12:44:43.139ZenzymetherapyfodmapsYES2021 Project PromotionsNOhttps://video.igem.org/w/2XWMeHXnijJ2Byv2hHpYVohttps://video.igem.org/lazy-static/thumbnails/45c217d8-ebd9-45ce-814c-82b949923792.jpgBolivia: Biosensor for arsenic detection in wastewater (2021) - Project Promotion [English]**Title:** Biosensor for arsenic detection in wastewater **Description:** Our project consists of the design and construction of a biosensor to detect arsenic in water sources for rural areas, with the purpose of proposing an innovative and accessible alternative that contributes to an environmental monitoring service. [Wiki](https://2021.igem.org/Team:Bolivia)https://static.igem.org/peertube/streaming-playlists/hls/0fe8ce2b-50db-4f7b-b3bd-abd575876fe0/8ea8c385-f633-4e04-a621-7c23d334df4d-master.m3u8https://video.igem.org/videos/embed/2XWMeHXnijJ2Byv2hHpYVo12004282021-07-27T12:50:17.398ZArsenicwastewaterYES2021 Project PromotionsNOhttps://video.igem.org/w/jxrVLVUeLSoHGQHhQ2UDpchttps://video.igem.org/lazy-static/thumbnails/063298f6-ab72-4cf7-a1df-c04dab9623da.jpgBolivia: Biosensor for arsenic detection in wastewater (2021) - Project Promotion [Spanish]**Title:** Biosensor for arsenic detection in wastewater **Description:** Our project consists of the design and construction of a biosensor to detect arsenic in water sources for rural areas, with the purpose of proposing an innovative and accessible alternative that contributes to an environmental monitoring service. [Wiki](https://2021.igem.org/Team:Bolivia)https://static.igem.org/peertube/streaming-playlists/hls/962887ea-9390-4de8-bf4d-b8289e7dfd25/8c30efec-3977-4e13-9cdd-e654dbd37dc2-master.m3u8https://video.igem.org/videos/embed/jxrVLVUeLSoHGQHhQ2UDpc12001622021-07-27T12:51:24.832ZwastewaterArsenicYES2021 Project PromotionsNOhttps://video.igem.org/w/im45dxA85Kr9NV8LQE2fq9https://video.igem.org/lazy-static/thumbnails/32f16eec-e452-4ddd-ac6e-d32b045aab5e.jpgBonn-Rheinbach: Biolan (2021) - Project Promotion [English]**Title:** Biolan **Description:** BioLan is a genetic engineering project to extract lanthanides - which make up most of the rare-earth elements - from ores by utilizing the protein Lanmodulin and it's biochemical properties that make it more suitable to lanthanide extraction than currently applied chemical compounds. [Wiki](https://2021.igem.org/Team:Bonn-Rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/8c782050-f236-4f9d-a2c2-41b97f4deb78/85a7d331-5311-46e7-8358-b05608a74760-master.m3u8https://video.igem.org/videos/embed/im45dxA85Kr9NV8LQE2fq91200362021-07-27T12:54:31.061ZYES2021 Project PromotionsNOhttps://video.igem.org/w/br5mLEpBeTsMYNfN21EMtmhttps://video.igem.org/lazy-static/thumbnails/b2fe7fde-9240-4e19-abcd-c5b11752d325.jpgBonn-Rheinbach: Biolan (2021) - Project Promotion [German]**Title:** Biolan **Description:** BioLan is a genetic engineering project to extract lanthanides - which make up most of the rare-earth elements - from ores by utilizing the protein Lanmodulin and it's biochemical properties that make it more suitable to lanthanide extraction than currently applied chemical compounds. [Wiki](https://2021.igem.org/Team:Bonn-Rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/547baaa8-109a-4e3d-9fcc-8d183687f196/b8255a0f-1fba-4479-ac7d-1a05ce2760bc-master.m3u8https://video.igem.org/videos/embed/br5mLEpBeTsMYNfN21EMtm120072021-07-27T12:56:08.473ZYES2021 Project PromotionsNOhttps://video.igem.org/w/kPMLDyKBxwFqK6C4KW37zPhttps://video.igem.org/lazy-static/thumbnails/8b849a55-821d-496a-b418-81ac3b0f0074.jpgBonn-Rheinbach: Biolan (2021) - Project Promotion [Chinese]**Title:** Biolan **Description:** BioLan is a genetic engineering project to extract lanthanides - which make up most of the rare-earth elements - from ores by utilizing the protein Lanmodulin and it's biochemical properties that make it more suitable to lanthanide extraction than currently applied chemical compounds. [Wiki](https://2021.igem.org/Team:Bonn-Rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/a089cc61-8c08-48f1-9418-66f80b9dd5d1/a889a455-97de-4335-8172-c642f24cbca7-master.m3u8https://video.igem.org/videos/embed/kPMLDyKBxwFqK6C4KW37zP120022021-07-27T12:58:36.119ZYES2021 Project PromotionsNOhttps://video.igem.org/w/4MHD7AhurHUZsWaR44ueiPhttps://video.igem.org/lazy-static/thumbnails/b85ee36c-f57b-4bdd-b028-fa2863b8f320.jpgBonn-Rheinbach: Biolan (2021) - Project Promotion [Spanish]**Title:** Biolan **Description:** BioLan is a genetic engineering project to extract lanthanides - which make up most of the rare-earth elements - from ores by utilizing the protein Lanmodulin and it's biochemical properties that make it more suitable to lanthanide extraction than currently applied chemical compounds. [Wiki](https://2021.igem.org/Team:Bonn-Rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/1ead8c10-5414-4300-806d-88aab834320d/da729d66-2e5a-4097-b675-6c6cbc18171c-master.m3u8https://video.igem.org/videos/embed/4MHD7AhurHUZsWaR44ueiP120012021-07-27T13:04:00.073ZYES2021 Project PromotionsNOhttps://video.igem.org/w/dEMgG199JocBMHu7Xzvrgkhttps://video.igem.org/lazy-static/thumbnails/8cf33c0b-b3b2-419b-8ab8-6c489395d2ad.jpgBritish_Columbia: detecTME (2021) - Project Promotion [English]**Title:** detecTME **Description:** DetecTME is a bacterial-based biosensor designed to support precision medicine in immunotherapy. We will engineer a non-infectious strain of Salmonella to target and enter tumours in order to profile the tumour’s immune activity in real time. [Wiki](https://2021.igem.org/Team:British_Columbia)https://static.igem.org/peertube/streaming-playlists/hls/6697d37c-df80-4933-a4fb-b9c3b5bf0175/33230f26-2b74-4f52-a245-8ddc87ed0e49-master.m3u8https://video.igem.org/videos/embed/dEMgG199JocBMHu7Xzvrgk10201292021-07-27T13:05:39.679ZimmunotherapybiosensorYES2021 Project PromotionsNOhttps://video.igem.org/w/986t39SSzDPM3JoLPbqXYJhttps://video.igem.org/lazy-static/thumbnails/840deb45-f366-4084-b5f9-92de34bbf5a3.jpgBritish_Columbia: detecTME (2021) - Project Promotion [Portuguese]**Title:** detecTME **Description:** DetecTME is a bacterial-based biosensor designed to support precision medicine in immunotherapy. We will engineer a non-infectious strain of Salmonella to target and enter tumours in order to profile the tumour’s immune activity in real time. [Wiki](https://2021.igem.org/Team:British_Columbia)https://static.igem.org/peertube/streaming-playlists/hls/41c6af2e-e03b-4b56-95cc-6fddbf292256/2dc78db0-ff76-4c10-a457-40a98b916964-master.m3u8https://video.igem.org/videos/embed/986t39SSzDPM3JoLPbqXYJ107012021-07-27T13:08:04.560ZimmunotherapybiosensorYES2021 Project PromotionsNOhttps://video.igem.org/w/2EwYmqkVHk7HZTeWwqc3Bchttps://video.igem.org/lazy-static/thumbnails/06510cbe-b462-4b8c-a9d5-531e56b58869.jpgBritish_Columbia: detecTME (2021) - Project Promotion [French]**Title:** detecTME **Description:** DetecTME is a bacterial-based biosensor designed to support precision medicine in immunotherapy. We will engineer a non-infectious strain of Salmonella to target and enter tumours in order to profile the tumour’s immune activity in real time. [Wiki](https://2021.igem.org/Team:British_Columbia)https://static.igem.org/peertube/streaming-playlists/hls/0d7a7d24-8ab4-4e35-82c3-a0188f331f39/0417945b-0c6c-4f49-99d9-8ec5590dbc63-master.m3u8https://video.igem.org/videos/embed/2EwYmqkVHk7HZTeWwqc3Bc1160122021-07-27T13:10:19.081ZbiosensorimmunotherapyYES2021 Project PromotionsNOhttps://video.igem.org/w/pFzQ8PtdiuSDuCasrGwgZBhttps://video.igem.org/lazy-static/thumbnails/b3f3534a-1880-4bfd-97bf-c00edd2e767a.jpgBritish_Columbia: detecTME (2021) - Project Promotion [Spanish]**Title:** detecTME **Description:** DetecTME is a bacterial-based biosensor designed to support precision medicine in immunotherapy. We will engineer a non-infectious strain of Salmonella to target and enter tumours in order to profile the tumour’s immune activity in real time. [Wiki](https://2021.igem.org/Team:British_Columbia)https://static.igem.org/peertube/streaming-playlists/hls/bfc90b6d-0d71-4393-83f9-bce25600aaf9/4d409c1e-a847-4039-b550-8deb2a3039c7-master.m3u8https://video.igem.org/videos/embed/pFzQ8PtdiuSDuCasrGwgZB104022021-07-27T13:13:34.903ZimmunotherapybiosensorYES2021 Project PromotionsNOhttps://video.igem.org/w/v9x2kNAAYeVrLtW4AizS5whttps://video.igem.org/lazy-static/thumbnails/1edf825f-c1b5-4c50-8215-b95f830e404a.jpgBritish_Columbia: detecTME (2021) - Project Promotion [Chinese]**Title:** detecTME **Description:** DetecTME is a bacterial-based biosensor designed to support precision medicine in immunotherapy. We will engineer a non-infectious strain of Salmonella to target and enter tumours in order to profile the tumour’s immune activity in real time. [Wiki](https://2021.igem.org/Team:British_Columbia)https://static.igem.org/peertube/streaming-playlists/hls/ec0a1709-0b72-4267-b4de-1574bcd66746/5a1fffdb-650b-431a-b600-99be144242d7-master.m3u8https://video.igem.org/videos/embed/v9x2kNAAYeVrLtW4AizS5w107042021-07-27T13:14:55.201ZimmunotherapybiosensorYES2021 Project PromotionsNOhttps://video.igem.org/w/dQFoxUpudjcb4WGXGnFqathttps://video.igem.org/lazy-static/thumbnails/9ba9f801-358e-45e2-bfc9-9613c76db6c0.jpgBrno_Czech_Republic: Phoscage (2021) - Project Promotion [English]**Title:** Phoscage **Description:** Phoscage tackles phosphate accumulation in surface water. This topic is crucial since high phosphate levels can lead to harmful cyanobacterial bloom. We designed phosphate-dependent expression of bacterial microcompartments (BMCs) in Bacillus subtilis to solve it. Find out more in our video! [Wiki](https://2021.igem.org/Team:Brno_Czech_Republic)https://static.igem.org/peertube/streaming-playlists/hls/67f9a39b-303d-4feb-9847-39e8256c6cad/12e96842-0460-4ba7-8cf1-4aa6fde85d53-master.m3u8https://video.igem.org/videos/embed/dQFoxUpudjcb4WGXGnFqat1200312021-07-27T13:17:05.835ZBacillusphosphateYES2021 Project PromotionsNOhttps://video.igem.org/w/iBBFfKgWCf3UW7fKkf7nCdhttps://video.igem.org/lazy-static/thumbnails/a2ba3819-0a8e-445d-9aa0-e2f1bd40e083.jpgBS_United_China: QS Disabler for Food Decontamination (2021) - Project Promotion [English]**Title:** QS Disabler for Food Decontamination **Description:** We designed an biobrick with QSpromoter and mCherry to visualize the accumulation of AHL, followed by the pvdQ gene to catalyze the deacylation of AHL, which blocks the AHL-mediated quorum sensing genes transcription. [Wiki](https://2021.igem.org/Team:BS_United_China)https://static.igem.org/peertube/streaming-playlists/hls/8ea46032-f1b0-4814-893b-0e37dc2fac98/06e5a763-091a-4338-b15e-538c9c798de5-master.m3u8https://video.igem.org/videos/embed/iBBFfKgWCf3UW7fKkf7nCd1180242021-07-27T13:20:52.590ZQuorum sensingFood contaminationYES2021 Project PromotionsNOhttps://video.igem.org/w/9vDXKPTXmELUsiQX2dtmmAhttps://video.igem.org/lazy-static/thumbnails/61addfb4-0be9-451c-a7db-5bed9bd19fea.jpgBUCT: DeliGHtFAL:Delivering GABA and 5HTP through Fatty Acid Lowering (2021) - Project Promotion ...**Title:** DeliGHtFAL:Delivering GABA and 5HTP through Fatty Acid Lowering **Description:** Our team's project is to construct an engineering bacterium that can be colonized in human intestinal tract, and use this engineering bacterium to decompose fatty acids by beta oxidation in intestinal tract. At the same time, using synthetic biological methods, the engineering bacterium can synthesize γ-aminobutyric acid and 5- hydroxytryptophan with antidepressant and anxiety relieving effects by using the precursor substances after decomposition of fatty acids. [Wiki](https://2021.igem.org/Team:BUCT)https://static.igem.org/peertube/streaming-playlists/hls/44ed12b6-533d-4178-b653-edaa093154d2/86a2654d-74a2-45e7-9b00-68f8999481e6-master.m3u8https://video.igem.org/videos/embed/9vDXKPTXmELUsiQX2dtmmA1200502021-07-27T13:25:04.394ZfatprobioticsYES2021 Project PromotionsNOhttps://video.igem.org/w/sBsvYbTeYbR7Nz9qF5M17shttps://video.igem.org/lazy-static/thumbnails/a42bcafe-bb45-4b39-ad0a-3ac0d197e8b4.jpgBUCT-China: the Food of Future-Cultured Meat (2021) - Project Promotion [English]**Title:** the Food of Future-Cultured Meat **Description:** We build three kinds of genetically engineered bacteria with reconstructed pathways to synthesize specific unsaturated fatty acid, construct new bio-material, and produce collagen. The new bio-material and collagen will be used in tissue engineering with muscle stem cell to make cultured meat. [Wiki](https://2021.igem.org/Team:BUCT-China)https://static.igem.org/peertube/streaming-playlists/hls/d780fa86-1361-4443-a6bb-d7698b8c511e/b119e71c-f4ef-4f98-9f7d-47a03e431af1-master.m3u8https://video.igem.org/videos/embed/sBsvYbTeYbR7Nz9qF5M17s1200582021-07-27T13:25:55.660ZYES2021 Project PromotionsNOhttps://video.igem.org/w/gz5Pr6P42swcjsHKXRwE8Vhttps://video.igem.org/lazy-static/thumbnails/622e04e2-8027-4aac-9090-a34971f9560b.jpgBulgaria: Last antibiotic standing (2021) - Project Promotion [English]**Title:** Last antibiotic standing **Description:** Antimicrobial resistance has been known to mankind ever since the first antibiotics were discovered. It is currently one of the leading threats to humanity's future, and the ongoing Covid-19 pandemic has contributed to the acceleration of the process. Our team's project aims to help with the resolution of this problem by developing a new diagnostic tool which can be used in testing the bacterial populations' resistance to antibiotics within a certain geographic area. [Wiki](https://2021.igem.org/Team:Bulgaria)https://static.igem.org/peertube/streaming-playlists/hls/7e1797e8-4db7-4f70-9dbb-82b37fc8d083/a7bd8086-2c7d-4620-946f-ab45f3df1782-master.m3u8https://video.igem.org/videos/embed/gz5Pr6P42swcjsHKXRwE8V1200542021-07-27T13:28:43.283ZantimicrobialresistanceYES2021 Project PromotionsNOhttps://video.igem.org/w/vUX4kS9tQ1HuouAqFCDURwhttps://video.igem.org/lazy-static/thumbnails/0e52ae2c-dcb2-43f9-ac88-0aed6c4b1421.jpgCalgary: NEOCYCLE (2021) - Project Promotion [English]**Title:** NEOCYCLE **Description:** iGEM Calgary presents NEOCYCLE, a novel method for recycling rare earth elements (REEs) from e-waste. Last year, almost fifty-four million tonnes of e-waste were dumped globally and the depletion of REEs has become a critical issue in the age of technological advancement. Our project focuses on three aspects of e-waste recycling: the extraction, separation, and measurement of REEs in a way that is cost-effective, environmentally-friendly, and easily integrated into current recycling processes. [Wiki](https://2021.igem.org/Team:Calgary)https://static.igem.org/peertube/streaming-playlists/hls/f23da0ad-9ed2-4843-983b-1edd4c8ecaf0/2b3c02e2-533b-4e31-87ee-0462f02e3a26-master.m3u8https://video.igem.org/videos/embed/vUX4kS9tQ1HuouAqFCDURw12001142021-07-27T13:29:14.798ZRecyclingE-WasteYES2021 Project PromotionsNOhttps://video.igem.org/w/mpDErSEW314zVRoSwMWm1jhttps://video.igem.org/lazy-static/thumbnails/73f56672-136c-44c6-9aa7-c099dea2add9.jpgCAU_China: SSR: Saline-alkaline Soil Restorer (2021) - Project Promotion [English]**Title:** SSR: Saline-alkaline Soil Restorer **Description:** Saline-alkali soil is unfavorable to crop growth. We hope to treat it through γ-polyglutamic acid(γPGA) by modified Corynebacterium glutamicum. We transfer related genes into C.g to make it produce γPGA. We use a kill-switch to kill our bacteria to ensure the biosafety. [Wiki](https://2021.igem.org/Team:CAU_China)https://static.igem.org/peertube/streaming-playlists/hls/a5441729-520a-4e71-a5d6-58572c760e62/e3a427ca-2596-4f5e-85bc-e8a93020b1a6-master.m3u8https://video.igem.org/videos/embed/mpDErSEW314zVRoSwMWm1j1200382021-07-27T13:29:45.527ZagricultureSoilYES2021 Project PromotionsNOhttps://video.igem.org/w/9y8fmYecPJjfpUjBFJ2Yfqhttps://video.igem.org/lazy-static/thumbnails/d0565c89-7e0c-45e1-b4c9-40fac434058a.jpgCCA_San_Diego: Collagene: Low-cost synthetic collagen (2021) - Project Promotion [English]**Title:** Collagene: Low-cost synthetic collagen **Description:** Collagen has many functions - providing support in the bones, muscle, and tissue, and is also effective in wound closure. To harvest collagen, animals are killed for their collagen-rich connective tissues. Our team wanted to find a way to synthetically engineer collagen to avoid this low-yield and unethical method. We will produce a bacterial protein that resembles animal collagen in yeast factories. We plan to make products such as thread, gels, and felts for biomedical purposes. [Wiki](https://2021.igem.org/Team:CCA_San_Diego)https://static.igem.org/peertube/streaming-playlists/hls/4545605d-0f7c-48d9-aaf7-d57e4d6c570c/b3990844-341d-4007-bdee-6f89bd14a9f5-master.m3u8https://video.igem.org/videos/embed/9y8fmYecPJjfpUjBFJ2Yfq11601212021-07-27T13:30:25.548ZYES2021 Project PromotionsNOhttps://video.igem.org/w/8hFKCuSrcKuK8Gzag3oSyxhttps://video.igem.org/lazy-static/thumbnails/7862d66c-c379-494a-812a-e7ad2e5190f6.jpgCCU_Taiwan: MR.SA (2021) - Project Promotion [English]**Title:** MR.SA **Description:** Recently, Da Shi Ye, the God who fights Plague in Minhsiung, Chiayi, Taiwan, noticed many missing persons. He decided to investigate this case with his subordinates, CCU_Taiwan. They found out the mastermind was MRSA! To catch MRSA, they started to research ways of combating the superbug... [Wiki](https://2021.igem.org/Team:CCU_Taiwan)https://static.igem.org/peertube/streaming-playlists/hls/3b045e7e-bcee-4bcc-86db-bd3deb132317/b2d703f4-7960-438a-b190-dd760e0932f8-master.m3u8https://video.igem.org/videos/embed/8hFKCuSrcKuK8Gzag3oSyx1200372021-07-27T13:31:06.802ZMRSAAMP&CPPYES2021 Project PromotionsNOhttps://video.igem.org/w/hKxmZXon4KRzrpYbhGsbHnhttps://video.igem.org/lazy-static/thumbnails/985612d2-5f5f-4d00-8518-38ab30418dd1.jpgChalmers-Gothenburg: ProCF – A Programmable Cell Factory (2021) - Project Promotion [English]**Title:** ProCF – A Programmable Cell Factory **Description:** Fatty acid-based compounds act as important building blocks in many industrial processes. Currently, many of these compounds are obtained through energy inefficient processes using base oils. Finding alternative production methods is a key step in the development of a bio-based economy. [Wiki](https://2021.igem.org/Team:Chalmers-Gothenburg)https://static.igem.org/peertube/streaming-playlists/hls/87a68739-a41c-47c8-858f-a369f87620d7/82246d9e-8b19-4c19-9132-3d828a466166-master.m3u8https://video.igem.org/videos/embed/hKxmZXon4KRzrpYbhGsbHn1190272021-07-27T13:34:39.224ZyeastfattyacidsYES2021 Project PromotionsNOhttps://video.igem.org/w/n8CAF5Nc1sMFx1uKU4Eoyhhttps://video.igem.org/lazy-static/thumbnails/e2595bd7-f271-4992-9940-db9beaaf538d.jpgCHINA-FAFU: Microscopic Algae, “Macroscopic” Energy (2021) - Project Promotion [English]**Title:** Microscopic Algae, “Macroscopic” Energy **Description:** Microalgae - an amazing organism that is extremely important for the improvement of global greenhouse effect and achieving the goal of carbon neutrality. Our project uses synthetic biology techniques to construct high-quality microalgae and reduce their cost as feedstock for biodiesel production. [Wiki](https://2021.igem.org/Team:CHINA-FAFU)https://static.igem.org/peertube/streaming-playlists/hls/ab20ac26-6225-4a5f-80fd-8f9fd9ca72c8/053cd2d0-2980-455d-b7a1-7f12ac18ad66-master.m3u8https://video.igem.org/videos/embed/n8CAF5Nc1sMFx1uKU4Eoyh12001262021-07-27T13:38:01.692ZBiodieselMicroalgaeYES2021 Project PromotionsNOhttps://video.igem.org/w/haZYykfY4Kxm4xabVS74Jdhttps://video.igem.org/lazy-static/thumbnails/06f73b9b-c9e3-48be-8768-c253af26681a.jpgCHS_Missouri_US: AquaeScope (2021) - Project Promotion [English]**Title:** AquaeScope **Description:** An increase in distrust towards tap water distribution systems in the US has caused 60 million people to switch to the more inaccessible and environmentally harmful alternative of plastic bottled water. Many of them could be avoiding safe tap water sources. Using the power of metagenomic sequencing and synthetic biology, we are investigating the microbial communities in tap and bottled water sources to share accurate and impactful information with the public and our water supply networks. [Wiki](https://2021.igem.org/Team:CHS_Missouri_US)https://static.igem.org/peertube/streaming-playlists/hls/82f7a414-218c-47d0-b3f5-b171dc53972c/b52324d0-55b2-48a4-aefc-268da615ddc4-master.m3u8https://video.igem.org/videos/embed/haZYykfY4Kxm4xabVS74Jd1050212021-07-27T13:38:30.482Zmicrobiomewater qualityYES2021 Project PromotionsNOhttps://video.igem.org/w/rQSeukmSecsf2sm7uQujQnhttps://video.igem.org/lazy-static/thumbnails/6823c71b-1c88-475a-8c6e-452d0cb5540f.jpgCity_of_London_UK: Ribotox (2021) - Project Promotion [English]**Title:** Ribotox **Description:** Half a million babies, 75,000 mothers. That's how many people die from pre-eclampsia every year. Project Ribotox aims to improve current pre-eclampsia detection methods by using an AND-gate toehold switch to detect two microRNAs up-regulated in pre-eclampsia sufferers. By developing novel software, hardware and modelling tools, and pioneering the uncharted waters of Recombinase Polymerase Amplification, we, City of London iGEM team, are tackling one of the most serious conditions worldwide. [Wiki](https://2021.igem.org/Team:City_of_London_UK)https://static.igem.org/peertube/streaming-playlists/hls/d1471fd7-0be3-46a8-bd2b-d50cb33f07dd/ec90cd8e-0ffe-4ae2-aae2-733136a712ca-master.m3u8https://video.igem.org/videos/embed/rQSeukmSecsf2sm7uQujQn1200802021-07-27T13:39:42.789ZCityoflondonpreeclampsiaYES2021 Project PromotionsNOhttps://video.igem.org/w/ayfgxE9c2WB9YvtSoNXTCshttps://video.igem.org/lazy-static/thumbnails/23daeb56-c0b7-45e0-a61c-4a25c3bd3c9e.jpgCityU_HK: VarieCure - Synthetic Biology of Variecolin (2021) - Project Promotion [English]**Title:** VarieCure - Synthetic Biology of Variecolin **Description:** Society presently faces challenges from a variety of health challenges. Based on the growing need for novel anti-microbial and immuno-stimulatory therapeutics, our team aims to develop a fungal platform to generate derivatives of Variecolin, a natural product with diverse therapeutic properties. [Wiki](https://2021.igem.org/Team:CityU_HK)https://static.igem.org/peertube/streaming-playlists/hls/4d62d770-e9b2-4880-ab4a-42ce7f4bd2a6/d3b9d931-364a-4118-8deb-a8e5432c2477-master.m3u8https://video.igem.org/videos/embed/ayfgxE9c2WB9YvtSoNXTCs1200282021-07-27T13:41:26.197ZYES2021 Project PromotionsNOhttps://video.igem.org/w/cz9N2L2UgGsfybJCdu8zzfhttps://video.igem.org/lazy-static/thumbnails/849badf5-8e6a-4a56-a3bc-be296f3f2f03.jpgCKWA-China: LonEase (2021) - Project Promotion [English]**Title:** LonEase **Description:** Lon protease can help degrade the c-Myn protein, an up-regulator protein for cancer metastasis. The Lon protease will be expressed in E.coli. and purified for possible drug manufacturing. [Wiki](https://2021.igem.org/Team:CKWA-China)https://static.igem.org/peertube/streaming-playlists/hls/5db57d2a-d2e7-46fe-a911-145d33304d84/8ac354c0-d307-40ac-b0da-c081937ce131-master.m3u8https://video.igem.org/videos/embed/cz9N2L2UgGsfybJCdu8zzf1200232021-07-27T13:49:48.088ZCancerYES2021 Project PromotionsNOhttps://video.igem.org/w/fvmNTYg4zagWSCymNS3Xtvhttps://video.igem.org/lazy-static/thumbnails/b36e673a-4f10-44cf-879c-35eb4bd7f6e6.jpgCornell: Collagen (2021) - Project Promotion [English]**Title:** Collagen **Description:** Cornell iGEM aims to produce prokaryotic proteins that mimic human collagen as an alternative to recombinant human collagen in eukaryotes. The project focuses on targeting the bone-cartilage interface as a region of interest. A bioreactor, hydrogel, and a gradient scaffold maker are used to accomplish these goals. The resulting products can be used as biomaterials for bone grafting or as materials involved with wound healing and gene therapies. [Wiki](https://2021.igem.org/Team:Cornell)https://static.igem.org/peertube/streaming-playlists/hls/75795594-6997-48a8-81b9-1954008c6227/cec29f86-5fa6-4634-bfec-811ca1a6d80b-master.m3u8https://video.igem.org/videos/embed/fvmNTYg4zagWSCymNS3Xtv1200432021-07-27T13:50:36.796ZYES2021 Project PromotionsNOhttps://video.igem.org/w/sHeaf3vk8E8Rv8bUy5dcb3https://video.igem.org/lazy-static/thumbnails/0823969d-aeb4-4e14-b123-39fe9987fec1.jpgCPU_CHINA: Polyethylene Degradist (2021) - Project Promotion [English]**Title:** Polyethylene Degradist **Description:** We are devoted to design a new type of molecular machine consisting of three types of functional protein, and to apply specific protein scaffold biotechnology to anchor these proteins onto one double-stranded DNA, conferring the molecular machine the ability of attaching and degrading polyethylene. [Wiki](https://2021.igem.org/Team:CPU_CHINA)https://static.igem.org/peertube/streaming-playlists/hls/d84f359f-86b0-4ab8-b20f-c3ca6cb9d7f2/cb7ecf57-9820-49f3-8275-e34b1147772c-master.m3u8https://video.igem.org/videos/embed/sHeaf3vk8E8Rv8bUy5dcb31190662021-07-27T13:51:21.842Z#CPU_CHINA Animated#Plastic-ase: PE DegradationYES2021 Project PromotionsNOhttps://video.igem.org/w/cEKa6Luwvef7du52AoCeXhhttps://video.igem.org/lazy-static/thumbnails/de2d8b7e-af64-4761-b077-92fadb68c472.jpgCrete: vaccinATEd (2021) - Project Promotion [English]**Title:** vaccinATEd **Description:** It is no secret that the world experienced a novel way of life during the pandemic as entire populations were forced to self isolate for months. As news speaking of new vaccines came out, a glimmer of hope started to shine. Not for everyone though. In many countries, the vaccines' rollout is almost non existent. We decided to tackle this issue(among others) by creating an edible vaccine against Sars-Cov2 [Wiki](https://2021.igem.org/Team:Crete)https://static.igem.org/peertube/streaming-playlists/hls/5e7d6288-90f0-4840-bc47-398f394c7fda/3b614369-9b54-4293-b60d-ab5235ec0eab-master.m3u8https://video.igem.org/videos/embed/cEKa6Luwvef7du52AoCeXh1200612021-07-27T13:52:45.326ZYES2021 Project PromotionsNOhttps://video.igem.org/w/1KPvrWAtVtZwRsGVaBFkexhttps://video.igem.org/lazy-static/thumbnails/3ab58692-d8c1-4f9a-8af0-2134683a043f.jpgCSMU_Taiwan: GotCha (2021) - Project Promotion [English]**Title:** GotCha **Description:** Upon identifying shortcomings in current detections of UTUC , the iGEM CSMU_Taiwan team aims to overcome them by developing GotCha: a precise, in vitro, and safe diagnostic kit, which also carries a potential to be employed in the detection of various micro-RNA identified diseases. Video & music resources: https://linktr.ee/igem_csmu [Wiki](https://2021.igem.org/Team:CSMU_Taiwan)https://static.igem.org/peertube/streaming-playlists/hls/061e4280-c5eb-4808-8973-5005097997e5/41e28151-650b-4914-944a-b0a676979301-master.m3u8https://video.igem.org/videos/embed/1KPvrWAtVtZwRsGVaBFkex1200392021-07-27T13:55:33.171ZmirnaRCAYES2021 Project PromotionsNOhttps://video.igem.org/w/ggEtsPspZBPGat7y4GyWbBhttps://video.igem.org/lazy-static/thumbnails/b597b095-77d3-4ecf-9ea8-aef64d7d309d.jpgCSU_CHINA: Sweet Guard (2021) - Project Promotion [English]**Title:** Sweet Guard **Description:** Our project aims to find a new method of treating type 1 diabetes with the help of synthetic biology. The light-controlled cell is also an insulin-releasing device that plays the "Sweet Guard" role in the patient’s body. Now Let’s see what this sweet guard can do. [Wiki](https://2021.igem.org/Team:CSU_CHINA)https://static.igem.org/peertube/streaming-playlists/hls/7ba8f253-129a-419a-91d9-a5ae50d44c5f/e247a5a5-9ec8-4609-b394-02ecd8b25e60-master.m3u8https://video.igem.org/videos/embed/ggEtsPspZBPGat7y4GyWbB1180762021-07-27T13:59:59.506Zlight-controlled pathwaytype I diabetesYES2021 Project PromotionsNOhttps://video.igem.org/w/aEPhEWWd68GXKwkDiRCr18https://video.igem.org/lazy-static/thumbnails/45f38a52-584c-40a6-b619-21f2d25db9f8.jpgCTR_Alberta_Canada: OXYBEGONE (2021) - Project Promotion [English]**Title:** OXYBEGONE **Description:** OXYBEGONE is a two plasmid system that provides a simple and effective method of detecting oxybenzone within bodies of water. OXYBEGONE was created to aid in the management of endocrine disruptors in water systems, as well as in directing a transition to sustainable sun protectors. [Wiki](https://2021.igem.org/Team:CTR_Alberta_Canada)https://static.igem.org/peertube/streaming-playlists/hls/4e4da732-e006-44c6-a6ad-993b3fa3bc9b/8c22836c-ca19-4c7c-bdbb-c8d2b5280798-master.m3u8https://video.igem.org/videos/embed/aEPhEWWd68GXKwkDiRCr181210362021-07-27T14:01:53.617ZcanadaAlbertaYES2021 Project PromotionsNOhttps://video.igem.org/w/wsuSJogZPz3pjaxeHQKp9uhttps://video.igem.org/lazy-static/thumbnails/fcaba2c2-faaf-41c3-ac04-f827b2a8b761.jpgCUHKSZ: EthaNO (2021) - Project Promotion [English]**Title:** EthaNO **Description:** EthaNO is a tiny device that can decompose ethanol in alcoholic beverages. The genetically modified bacteria within the device, which is harmless, can actively express the enzymes that degrade the alcohol into carbon dioxide rapidly. With EthaNO, people can enjoy the famous spirits like Maotai without worrying about ethanol. [Wiki](https://2021.igem.org/Team:CUHKSZ)https://static.igem.org/peertube/streaming-playlists/hls/f6a54adf-1171-458c-a5cd-d38ad7ad4e40/5c10bbf2-698a-4ae6-a882-e68d623cff74-master.m3u8https://video.igem.org/videos/embed/wsuSJogZPz3pjaxeHQKp9u1080702021-07-27T14:03:04.829ZadhEthanolYES2021 Project PromotionsNOhttps://video.igem.org/w/rLKoAY9ug4Qd2HERuVmMPMhttps://video.igem.org/lazy-static/thumbnails/d4f6e9b6-c27c-4edf-a96f-1eb10d2acc9f.jpgDKU: UNTITLED (2021) - Project Promotion [English]**Title:** UNTITLED **Description:** We, DKU iGEM team, want to provide an innovative solution that breaks the traditional approaches of eliminating the cynoHABs by employing biological mechanism of microorganisms and a unique mechanical design as a floating unit. [Wiki](https://2021.igem.org/Team:DKU)https://static.igem.org/peertube/streaming-playlists/hls/d0b3eea6-fddc-4486-918f-05274b423b57/f8db1ae4-57c8-4222-af2a-47b674adb5c6-master.m3u8https://video.igem.org/videos/embed/rLKoAY9ug4Qd2HERuVmMPM1200312021-07-27T14:09:13.016ZYES2021 Project PromotionsNOhttps://video.igem.org/w/w2NFqPB6HHdRF8cSCstEAmhttps://video.igem.org/lazy-static/thumbnails/eff90419-5e14-429a-86da-64b97f956078.jpgDNHS_SanDiego_CA: Vigilantly Optimizing Cancer Detection (VOC-D) (2021) - Project Promotion [Engl...**Title:** Vigilantly Optimizing Cancer Detection (VOC-D) **Description:** Our project is an early detection method using E. coli with a set of inducible promoters dependent on specific VOCs (Volatile Organic Compounds) that indicate lung cancer. We will then quantify the expression of a reporter gene and our machine learning algorithm determine the final diagnosis. [Wiki](https://2021.igem.org/Team:DNHS_SanDiego_CA)https://static.igem.org/peertube/streaming-playlists/hls/f332abc7-8dfe-4b1d-a915-137a211d7878/4ae35d77-df44-47ae-84ea-29818b5ea4cb-master.m3u8https://video.igem.org/videos/embed/w2NFqPB6HHdRF8cSCstEAm1140172021-07-27T14:09:40.595ZlungcancerearlydetectionYES2021 Project PromotionsNOhttps://video.igem.org/w/49gAzxDVox5Rd5EzWZ3gd2https://video.igem.org/lazy-static/thumbnails/bdbb0bf3-b1dc-4397-83ff-86d878db71d5.jpgDTU-Denmark: PHEAST (2021) - Project Promotion [English]**Title:** PHEAST **Description:** What if you could use yeast to make proteins from gas? Check out our exciting promotion video, where we present this year’s iGEM project, brought to you by the DTU BioBuilders. Credits for manuscript and execution goes to the DTU BioBuilders. Special thanks to the director of the video Jacqueline Landau and to our videographer Mikkel Swartz. Follow us on Facebook (DTU BioBuilders) or Instagram (@igem_dtubiobuilders). [Wiki](https://2021.igem.org/Team:DTU-Denmark)https://static.igem.org/peertube/streaming-playlists/hls/1972fa45-be61-47a9-8132-664e24fd81b5/bd3b8611-39eb-4ca4-a4c3-39c601f3ec44-master.m3u8https://video.igem.org/videos/embed/49gAzxDVox5Rd5EzWZ3gd210801452021-07-27T14:10:50.941ZDTUBioBuildersPHEASTYES2021 Project PromotionsNOhttps://video.igem.org/w/hsLctgLyy5zhNroGFWiQZhhttps://video.igem.org/lazy-static/thumbnails/43454a74-8e85-47fa-99ec-66ff7850d06d.jpgDuesseldorf: CereX (2021) - Project Promotion [English]**Title:** CereX **Description:** The iGEM team Düsseldorf 2021 aims to develop an aptamer-based quick-test to detect and identify stressors in crop plants. Subsequently, the data from the quick-test will support the creation of a forecast indicating the spread of pathogens. [Wiki](https://2021.igem.org/Team:Duesseldorf)https://static.igem.org/peertube/streaming-playlists/hls/854ecb5f-0330-4fb5-9aaf-b01f8144bb22/7f4f28fe-6a17-471e-af5f-23790759657e-master.m3u8https://video.igem.org/videos/embed/hsLctgLyy5zhNroGFWiQZh1200672021-07-27T14:14:27.592ZYES2021 Project PromotionsNOhttps://video.igem.org/w/wednvCyDfZF2UtUCCJJ5pjhttps://video.igem.org/lazy-static/thumbnails/1410b9ac-d7ce-4df9-bcf3-e47284d8f14e.jpgDuke: Co-culture Organoid Glioma Screens (COGS): High-throughput drug discovery ... (2021) - Proj...**Title:** Co-culture Organoid Glioma Screens (COGS): High-throughput drug discovery using synthetic reporter systems **Description:** The Duke iGEM team is creating a drug screening platform for glioblastoma. This platform will utilize brain organoids and synthetic biology tools to visualize the impact of new and old drugs on brain tumors. This technology has the potential to facilitate breakthroughs in the field and offer hope to patients and their loved ones in the strenuous battle against this scary disease. [Wiki](https://2021.igem.org/Team:Duke)https://static.igem.org/peertube/streaming-playlists/hls/f4ca73df-ca96-4394-a41c-d23a0a224588/19ba0912-e830-47ca-93a0-e713b32e71c5-master.m3u8https://video.igem.org/videos/embed/wednvCyDfZF2UtUCCJJ5pj1020362021-07-27T14:15:17.721ZdrugscreeningorganoidsYES2021 Project PromotionsNOhttps://video.igem.org/w/bgNjcwEgzp9B5t743Z4UrQhttps://video.igem.org/lazy-static/thumbnails/b1d21be3-c15a-4bd4-a1c0-f205d0e3a527.jpgDUT_China: Using scaffold-free enzyme assemblies to degrade PET plastics in water (2021) - Projec...**Title:** Using scaffold-free enzyme assemblies to degrade PET plastics in water **Description:** Our work presents a simple strategy to improve PET plastic degradation in river, lake, soil and biosynthetic microbe factories. The first step is to degrade PET in biology method, then we can use the degradation chemical products to produce more useful things. [Wiki](https://2021.igem.org/Team:DUT_China)https://static.igem.org/peertube/streaming-playlists/hls/533015c4-424d-4736-a1b8-ce5968e56432/72eef65a-7dc8-482c-b183-c64326b94d5b-master.m3u8https://video.igem.org/videos/embed/bgNjcwEgzp9B5t743Z4UrQ1090582021-07-27T14:15:48.010Zenvironmentplastics degradationYES2021 Project PromotionsNOhttps://video.igem.org/w/ur2mjDLfe9hXYvP8uricK2https://video.igem.org/lazy-static/thumbnails/62d1569a-adf0-44de-8748-7dd686c06d82.jpgDUT_China: Using scaffold-free enzyme assemblies to degrade PET plastics in water (2021) - Projec...**Title:** Using scaffold-free enzyme assemblies to degrade PET plastics in water **Description:** Our work presents a simple strategy to improve PET plastic degradation in river, lake, soil and biosynthetic microbe factories. The first step is to degrade PET in biology method, then we can use the degradation chemical products to produce more useful things. [Wiki](https://2021.igem.org/Team:DUT_China)https://static.igem.org/peertube/streaming-playlists/hls/e63e4f15-c559-4cc4-a8f6-f3a540ae1d43/bf8d9f69-bbfd-427d-bb0a-1d00314f5399-master.m3u8https://video.igem.org/videos/embed/ur2mjDLfe9hXYvP8uricK2107092021-07-27T14:16:17.975Zenvironmentplastics degradationYES2021 Project PromotionsNOhttps://video.igem.org/w/hf2aW3WRjvFrtNC6AyT8Hbhttps://video.igem.org/lazy-static/thumbnails/f7d8c502-095a-42c6-847b-dfb69fa73546.jpgECNUAS: Cell-free Atrazine Biosensor (2021) - Project Promotion [English]**Title:** Cell-free Atrazine Biosensor **Description:** Atrazine is commonly used as a herbicide for production and distribution but harm to human body. Our team is working on the development of a portable, efficient and inexpensive cell-free biosensor that can detect Atrazine through fluorescent color. [Wiki](https://2021.igem.org/Team:ECNUAS)https://static.igem.org/peertube/streaming-playlists/hls/83875a67-83e2-40f9-83de-68d15c06edc8/5b598e42-6256-4277-9de0-5b3c792c5538-master.m3u8https://video.igem.org/videos/embed/hf2aW3WRjvFrtNC6AyT8Hb85072021-07-27T14:17:35.369ZYES2021 Project PromotionsNOhttps://video.igem.org/w/vBwYxX6vKagF7nvMMrqMvhhttps://video.igem.org/lazy-static/thumbnails/0396a420-f68f-4e26-a64c-4f697817d444.jpgEcuador: Agrobactory 593 (2021) - Project Promotion [English]**Title:** Agrobactory 593 **Description:** Agriculture is a fundamental activity in the economy of Ecuador, so our project focuses on combating different pests through a SynBio-based platform, using RNAi for the production of highly specific biopesticides. For its development, we used as proof of concept the Fusarium wilt, caused by Fusarium oxysporum R4T, a fungus that constitutes a potential threat to local production. Our vision is to maintain the source of income for thousands of families that depend on agricultural activity. [Wiki](https://2021.igem.org/Team:Ecuador)https://static.igem.org/peertube/streaming-playlists/hls/efcf2462-07b4-4662-aa03-62f0749abc26/9c178dc3-fc94-4075-aa57-9ef00ce6583b-master.m3u8https://video.igem.org/videos/embed/vBwYxX6vKagF7nvMMrqMvh11905312021-07-27T14:19:42.786ZARNiFusariumYES2021 Project PromotionsNOhttps://video.igem.org/w/ctE71f8jSfKZwxRcgPLNHDhttps://video.igem.org/lazy-static/thumbnails/1d63e7ff-371c-4421-804b-240aad537590.jpgEcuador: Agrobactory 593 (2021) - Project Promotion [Spanish]**Title:** Agrobactory 593 **Description:** Agriculture is a fundamental activity in the economy of Ecuador, so our project focuses on combating different pests through a SynBio-based platform, using RNAi for the production of highly specific biopesticides. For its development, we used as proof of concept the Fusarium wilt, caused by Fusarium oxysporum R4T, a fungus that constitutes a potential threat to local production. Our vision is to maintain the source of income for thousands of families that depend on agricultural activity. [Wiki](https://2021.igem.org/Team:Ecuador)https://static.igem.org/peertube/streaming-playlists/hls/5cf116d4-6c7a-4371-b43c-c208d728bd57/e786e73f-d494-4d39-909e-31736e376e1e-master.m3u8https://video.igem.org/videos/embed/ctE71f8jSfKZwxRcgPLNHD1190372021-07-27T14:20:25.219ZFusariumARNiYES2021 Project PromotionsNOhttps://video.igem.org/w/nMCYSPcaEtS4CFKLZNmVsbhttps://video.igem.org/lazy-static/thumbnails/e563bfdf-b723-4f9b-ab3b-14619656ea39.jpgECUST_China: Magic Blue (2021) - Project Promotion [English]**Title:** Magic Blue **Description:** We are Magic Blue. As shown by our name, we hope to get a kind of healthy blue pigment—phycocyanin, letting more people have the taste of blue. Using yeast as the carrier, it is safe and convenient to access to food. [Wiki](https://2021.igem.org/Team:ECUST_China)https://static.igem.org/peertube/streaming-playlists/hls/b06f2bef-d0e1-4e7b-ad5f-6873fe672482/f823b98f-5429-41f0-9eb5-1a66d89c8389-master.m3u8https://video.igem.org/videos/embed/nMCYSPcaEtS4CFKLZNmVsb1200172021-07-27T14:27:52.943ZphycocyaninYES2021 Project PromotionsNOhttps://video.igem.org/w/puH8gSVAx3LrRQanLnANq1https://video.igem.org/lazy-static/thumbnails/034c6e6c-1ee6-4ad7-9faa-3319adea8579.jpgEdinburgh: The SuperGrinder (2021) - Project Promotion [English]**Title:** The SuperGrinder **Description:** We are the 2021 Edinburgh OG iGEM team, presenting 'The SuperGrinder'. In the face of the increasing detrimental waste streams, we aim to immobilise enzymes to silica beads in our novel mechanical process to upcycle waste to newfound applications. With the help of Directed Evolution, we see value in waste in support of the UN SDGs to change our perspective on what a sustainable society can achieve. [Wiki](https://2021.igem.org/Team:Edinburgh)https://static.igem.org/peertube/streaming-playlists/hls/be445bf2-d2b8-4896-b918-5f09135714c8/7c01dc95-f80a-4088-b8b8-24c8a3541222-master.m3u8https://video.igem.org/videos/embed/puH8gSVAx3LrRQanLnANq111901582021-07-27T14:31:47.180ZupcyclingcirculareconomyYES2021 Project PromotionsNOhttps://video.igem.org/w/gYjm6pEAY2C3wZuqhwEeZ2https://video.igem.org/lazy-static/thumbnails/f4d4ffe0-604a-4d55-a34e-c82d229ab48d.jpgEPFL: CuRe (2021) - Project Promotion [English]**Title:** CuRe **Description:** Hello! Our promotion video was written to reflect the scientific process to be used during the project. The rewinds and jumps in time symbolise our workflow, since we will have to backtrack and modify our methods after receiving results. Thanks for watching! The EPFL iGEM Team [Wiki](https://2021.igem.org/Team:EPFL)https://static.igem.org/peertube/streaming-playlists/hls/81560993-d955-4056-bed4-193dfb9f548f/9d8209ce-adad-46e3-93ce-454220c45dcc-master.m3u8https://video.igem.org/videos/embed/gYjm6pEAY2C3wZuqhwEeZ212002322021-07-27T14:34:45.596ZagricultureheavymetalYES2021 Project PromotionsNOhttps://video.igem.org/w/4qzwokpxYYS6WuK478WNZVhttps://video.igem.org/lazy-static/thumbnails/a89e0f55-0105-4c63-864e-ca67df331423.jpgEstonia_TUIT: SalsaSMILE (2021) - Project Promotion [English]**Title:** SalsaSMILE **Description:** Estonia_TUIT genetically engineers protease to target the SALSA protein, which is used by bacteria to attach to a tooth surface. Cleaving SALSA protein is expected to remove bacteria even from areas difficult to reach, making oral hygiene more efficient. SalsaSMILE - your shortcut to healthy teeth! [Wiki](https://2021.igem.org/Team:Estonia_TUIT)https://static.igem.org/peertube/streaming-playlists/hls/1bb9ed21-0bac-448e-b623-d24c8d6a5d77/d73753c1-8472-4996-bec0-480d8837af6d-master.m3u8https://video.igem.org/videos/embed/4qzwokpxYYS6WuK478WNZV1200552021-07-27T14:36:24.743Zdental careprevent cariesYES2021 Project PromotionsNOhttps://video.igem.org/w/eHF4yjxscVK54YJYrnAivdhttps://video.igem.org/lazy-static/thumbnails/f55c5e84-1687-46d0-b6d1-4eb082922693.jpgEvry_Paris-Saclay: Evolution.T7 (2021) - Project Promotion [English]**Title:** Evolution.T7 **Description:** We, the Evry Paris-Saclay 2021 iGEM team, are developing a new tool for directed evolution of proteins with an emphasis on targetability and greater diversification compared to other methods. Our tool will allow the discovery of new and better enzymes and accelerate the development of custom biosensors. [Wiki](https://2021.igem.org/Team:Evry_Paris-Saclay)https://static.igem.org/peertube/streaming-playlists/hls/6f185e9a-e17f-4e9c-90a9-cedf39320342/d543f9de-cf13-42ee-843a-7a8868fa2685-master.m3u8https://video.igem.org/videos/embed/eHF4yjxscVK54YJYrnAivd12001332021-07-27T14:37:11.670ZFoundational AdvanceFranceYES2021 Project PromotionsNOhttps://video.igem.org/w/ecgoYtCCFwMcDEa6AwajTrhttps://video.igem.org/lazy-static/thumbnails/b1e1fbf5-948c-4603-8d9f-d64b6b88a074.jpgFAFU-CHINA: A Microbial Fragrance Factory--A Tale of Two Yeasts (2021) - Project Promotion [English]**Title:** A Microbial Fragrance Factory--A Tale of Two Yeasts **Description:** This year we created a sachets that automatically change their scent, in which two yeasts work to produce different aromas at different times. [Wiki](https://2021.igem.org/Team:FAFU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/6ad978e4-40e8-4255-921e-1c24e686c477/5f49c5ca-3134-414e-9f11-de8fd6cdde37-master.m3u8https://video.igem.org/videos/embed/ecgoYtCCFwMcDEa6AwajTr1100242021-07-27T14:37:51.871Zasia chinafoundational advanceYES2021 Project PromotionsNOhttps://video.igem.org/w/3Cp3WDvvu28c7FYfS7t9Ehhttps://video.igem.org/lazy-static/thumbnails/dba38008-bdaa-4709-80f3-e9c477b00ea2.jpgFCB-UANL: SYNBIOFOAM (2021) - Project Promotion [English]**Title:** SYNBIOFOAM **Description:** Special report about SYNBIOFOAM, iGEM FCB-UANL's project that aims to produce the first-ever synbio-based firefighting foam alternative to mitigate the ineffectiveness, toxicity, and pollution of current firefighting tools containing fluorosurfactants, a group of harmful chemicals. [Wiki](https://2021.igem.org/Team:FCB-UANL)https://static.igem.org/peertube/streaming-playlists/hls/15474230-b006-4abb-b1f8-dc18f8cf9624/286c312c-c037-4266-b4a1-c46d43e8b8b7-master.m3u8https://video.igem.org/videos/embed/3Cp3WDvvu28c7FYfS7t9Eh12002222021-07-27T14:39:04.637ZFIREFOAMYES2021 Project PromotionsNOhttps://video.igem.org/w/vfmS9ADuQ1UGN4gsB4YA79https://video.igem.org/lazy-static/thumbnails/12ec28c7-381d-4ccc-ab86-1adf6a3ddc6e.jpgFDR-HB_Peru: ChocoCadmium: Detection and Bioremediation of Cadmium in the Peruvi... (2021) - Proj...**Title:** ChocoCadmium: Detection and Bioremediation of Cadmium in the Peruvian Cacao Industry **Description:** More than 50,000 Peruvians earn a living through the cultivation and production of cacao, and with the EU’s new regulations for maximum levels of cadmium in chocolate, farmers are economically aggravated. We are working on developing a cadmium detection sensor that allows farmers in Peru to test for different levels of cadmium in both soil and cacao beans efficiently and effectively, and use bioremediation to produce cacao that complies with international regulations for cadmium content. [Wiki](https://2021.igem.org/Team:FDR-HB_Peru)https://static.igem.org/peertube/streaming-playlists/hls/ecda4acd-b795-4289-b598-2fddbc0bc3fc/d7c7d6d5-caad-4bcc-b2a0-f29c6a61ad76-master.m3u8https://video.igem.org/videos/embed/vfmS9ADuQ1UGN4gsB4YA791200962021-07-27T14:42:04.846ZYES2021 Project PromotionsNOhttps://video.igem.org/w/hZyCQF9Rbw8qt6g2NgcLrEhttps://video.igem.org/lazy-static/thumbnails/36c2435b-c111-41e1-ab11-9c987945c75b.jpgFSU: Food Insecurity (2021) - Project Promotion [English]**Title:** Food Insecurity **Description:** As part of the Big Bend, the FSU iGEM is helping the members of our community by addressing food insecurity, an experience faced by 100,000 people (14%, 2019). Worsened by the novel coronavirus, our food insecurity rate has exploded to 30% (2020). By producing a chitin-chitosan bioplastic that will extend the shelf of fresh foods, our team will increase our communities' access to fresh, nutritious food. [Wiki](https://2021.igem.org/Team:FSU)https://static.igem.org/peertube/streaming-playlists/hls/899bb9bf-b029-41b5-926d-760dc909cd28/7eaaee8f-c788-48a4-af62-f869ddc9fe3e-master.m3u8https://video.igem.org/videos/embed/hZyCQF9Rbw8qt6g2NgcLrE1200532021-07-27T14:44:32.758ZFood InsecurityFSUYES2021 Project PromotionsNOhttps://video.igem.org/w/7nsVni1Fc2HXbewZ6U3quVhttps://video.igem.org/lazy-static/thumbnails/74771a43-574a-4818-b653-bc71a25195b3.jpgFudan: Candicamera (2021) - Project Promotion [English]**Title:** Candicamera **Description:** Candida albicans causes diseases as vaginal infections, affecting 75% of women. A little girl in the video was worrying about this fungal infection and seeking help desperately. See the self-made musical to know about how team Fudan will guard her health by their new product "Candicamera", which allows rapid detections of Candida albicans in resource-limited settings and for point-of-care analysis. How could we leave girls suffering alone? [Wiki](https://2021.igem.org/Team:Fudan)https://static.igem.org/peertube/streaming-playlists/hls/33960a8f-09fd-438a-982f-43505ac52ddd/783dc613-30ea-4ff4-9f13-8456e8f491c6-master.m3u8https://video.igem.org/videos/embed/7nsVni1Fc2HXbewZ6U3quV12001382021-07-27T14:47:04.912ZmusicalCandida albicansYES2021 Project PromotionsNOhttps://video.igem.org/w/kQ3ERd2y5w6NLQPmzhtKBZhttps://video.igem.org/lazy-static/thumbnails/9fb2c42f-48d0-4213-ba35-04c01736bed2.jpgFujian_United: Alpha Luco, Development of a new S. cerevisiae to self-secrete gl... (2021) - Proj...**Title:** Alpha Luco, Development of a new S. cerevisiae to self-secrete glucoamylase **Description:** Our team aims to create a S. cerevisiae that can self-secrete glucoamylase for alcohol fermentation. So we designed a plasmid to be further transferred into the yeast. And we hope could reduce the cost and shorten the cycle in alcohol production. [Wiki](https://2021.igem.org/Team:Fujian_United)https://static.igem.org/peertube/streaming-playlists/hls/a092fb17-2f5a-4336-8bfb-5e6d78b6ec8b/49ba74f9-27da-4fd7-a763-7ec634f27503-master.m3u8https://video.igem.org/videos/embed/kQ3ERd2y5w6NLQPmzhtKBZ1170272021-07-27T14:50:03.006ZYES2021 Project PromotionsNOhttps://video.igem.org/w/szuCDntGDEmg7sux7TEujdhttps://video.igem.org/lazy-static/thumbnails/23c556d6-666d-4579-81d8-a69d63137173.jpgFZU-China: Optogenetic_GABA (2021) - Project Promotion [English]**Title:** Optogenetic_GABA **Description:** In previous studies, GABA is shown to be able to alleviate depression. Here we engineer bacteria to have an optogenetic system, which can control the synthesis of GABA and cell lysis. When the bacteria make a certain amount of intracellular GABA, they will lyse and enable the release of GABA. [Wiki](https://2021.igem.org/Team:FZU-China)https://static.igem.org/peertube/streaming-playlists/hls/d73acb67-2336-4063-a48b-d1255f038bb0/5b486ecc-2c8f-45f1-aec0-967559d0ce5d-master.m3u8https://video.igem.org/videos/embed/szuCDntGDEmg7sux7TEujd1090162021-07-27T14:50:38.860Z#Therapeutics#ChinaYES2021 Project PromotionsNOhttps://video.igem.org/w/4qZc7Qhp34kupNuMR6Dk6Thttps://video.igem.org/lazy-static/thumbnails/fc039d8f-81d4-420f-8fe4-b80d0e9488dc.jpgGA_State_SW_Jiaotong: HNOSS (2021) - Project Promotion [English]**Title:** HNOSS **Description:** By investigating the mechanisms of stress alopecia and seborrheic alopecia, our project will heterologously express GAS6 and EGF proteins to reactivate hair follicle stem cells and improve the scalp microenvironment, hoping to alleviate the global hair loss issue. [Wiki](https://2021.igem.org/Team:GA_State_SW_Jiaotong)https://static.igem.org/peertube/streaming-playlists/hls/1bc88318-4215-4edc-8d61-77f5b96122f9/5ff9caa1-f591-4495-9728-95972a12ae86-master.m3u8https://video.igem.org/videos/embed/4qZc7Qhp34kupNuMR6Dk6T1190122021-07-27T14:55:22.220Znew applicationhair loss treatmentYES2021 Project PromotionsNOhttps://video.igem.org/w/gzKaCEgQrqSnfgVJEv2SRHhttps://video.igem.org/lazy-static/thumbnails/4cbe9a7f-eeff-4700-b1bf-29e898a72831.jpgGA_State_SW_Jiaotong: HNOSS (2021) - Project Promotion [Chinese]**Title:** HNOSS **Description:** By investigating the mechanisms of stress alopecia and seborrheic alopecia, our project will heterologously express GAS6 and EGF proteins to reactivate hair follicle stem cells and improve the scalp microenvironment, hoping to alleviate the global hair loss issue. [Wiki](https://2021.igem.org/Team:GA_State_SW_Jiaotong)https://static.igem.org/peertube/streaming-playlists/hls/7e2f39f1-cb37-43c2-aa7c-c9cbe5d2b903/3a567d48-7a75-4af3-b7f2-394918084619-master.m3u8https://video.igem.org/videos/embed/gzKaCEgQrqSnfgVJEv2SRH119022021-07-27T14:56:40.060Zhair loss treatmentnew applicationYES2021 Project PromotionsNOhttps://video.igem.org/w/j9tLUhPGEt1QamNzXAhSJKhttps://video.igem.org/lazy-static/thumbnails/dc65ca6c-72bf-41d5-87c7-03d2908b9ac1.jpgGA_State_SW_Jiaotong: HNOSS (2021) - Project Promotion [French]**Title:** HNOSS **Description:** By investigating the mechanisms of stress alopecia and seborrheic alopecia, our project will heterologously express GAS6 and EGF proteins to reactivate hair follicle stem cells and improve the scalp microenvironment, hoping to alleviate the global hair loss issue. [Wiki](https://2021.igem.org/Team:GA_State_SW_Jiaotong)https://static.igem.org/peertube/streaming-playlists/hls/92f38ffe-7d69-40a2-ad29-e0bed8eeddf7/76c7d520-a456-4fe4-a5b9-26100f1a1b39-master.m3u8https://video.igem.org/videos/embed/j9tLUhPGEt1QamNzXAhSJK119012021-07-27T14:56:55.289Zhair loss treatmentnew applicationYES2021 Project PromotionsNOhttps://video.igem.org/w/pJf2H81eBmcwCFcpvPLQM4https://video.igem.org/lazy-static/thumbnails/46a869f0-1d3f-4e41-a3ce-300ca3164391.jpgGaston_Day_School: Using Fluorescence with Bacteriophages to Detect the Presence... (2021) - Proj...**Title:** Using Fluorescence with Bacteriophages to Detect the Presence of E. Coli **Description:** Gaston Day School partners with Shanghai Shangde Experimental School in China. Our project focuses on the use of bacteriophages and the introduction of a green fluorescent protein into E. coli plasmid. In low-tech environments, this method could diagnose and treat bacterial illnesses. [Wiki](https://2021.igem.org/Team:Gaston_Day_School)https://static.igem.org/peertube/streaming-playlists/hls/c02812cf-e703-48f7-87f9-6ceebc671b25/193b2266-f0a0-42ad-8442-a3144e615dc1-master.m3u8https://video.igem.org/videos/embed/pJf2H81eBmcwCFcpvPLQM41180282021-07-27T14:57:58.134ZYES2021 Project PromotionsNOhttps://video.igem.org/w/4HQ8qd5CF95MToRWXW9oxWhttps://video.igem.org/lazy-static/thumbnails/2c9473e9-3473-49b6-86e2-03cca4ba710a.jpgGCGS_China: Detection of fish spoilage by quick and efficient methods. (2021) - Project Promotion...**Title:** Detection of fish spoilage by quick and efficient methods. **Description:** Food is closely related to our health. Spoilage causes massive economic losses and chronic diseases. We aim to modify the existing aptamer that can specifically bind AHL, reflect the concentration of Pseudomonas aeruginosa, and compared it with other methods, finally design a portable device. [Wiki](https://2021.igem.org/Team:GCGS_China)https://static.igem.org/peertube/streaming-playlists/hls/1e229206-9e7f-4b04-85d5-34a676702c54/c2c0c552-66e4-4d8d-accb-33f64d349054-master.m3u8https://video.igem.org/videos/embed/4HQ8qd5CF95MToRWXW9oxW1200352021-07-27T15:03:03.144Zfish corruption detectionconsumer fitnessYES2021 Project PromotionsNOhttps://video.igem.org/w/jhTWr7Zf9wgNMCRxtLUwJwhttps://video.igem.org/lazy-static/thumbnails/2de10622-7112-4ad4-b88b-72b011c7de25.jpgGDSYZX: Feather Degrading Bacteria and Waste Recycling (2021) - Project Promotion [English]**Title:** Feather Degrading Bacteria and Waste Recycling **Description:** We selected a kind of Streptomyces which can degrade feathers slowly. To further improve its degradation efficiency, we use synthetic biology, transgenic technology and other means to obtain strains with higher degradation efficiency by transgenic method and using promoters with different strength. [Wiki](https://2021.igem.org/Team:GDSYZX)https://static.igem.org/peertube/streaming-playlists/hls/94206789-4e8d-42b1-bfc7-e86eb20dd4da/6293b41e-e820-42c4-bd98-e048f2cbec00-master.m3u8https://video.igem.org/videos/embed/jhTWr7Zf9wgNMCRxtLUwJw1120172021-07-27T15:03:09.458ZDegrading BacteriaWaste RecyclingYES2021 Project PromotionsNOhttps://video.igem.org/w/bBvHjugvtGWzqBeMQbjuqAhttps://video.igem.org/lazy-static/thumbnails/9a1dbc5c-19d7-4b14-b6b4-995b777a1562.jpgGifu: Quantification of stress by human herpesvirus 6 as a biomarker (2021) - Project Promotion [...**Title:** Quantification of stress by human herpesvirus 6 as a biomarker **Description:** The goal of our project is to create a device to quantify HHV-6. Stress often causes physical problems and can also lead to mental illnesses such as depression. However, stress tends to be neglected due to the difficulty of quantitative measurement of stress. We will offer a new method to find people who suffer from chronic stress through this project. [Wiki](https://2021.igem.org/Team:Gifu)https://static.igem.org/peertube/streaming-playlists/hls/55f0babe-088b-49cb-9102-ad7a1b5065b2/ec9314f2-21a8-40ce-ba62-45a5a246257b-master.m3u8https://video.igem.org/videos/embed/bBvHjugvtGWzqBeMQbjuqA1200682021-07-27T15:05:13.554ZYES2021 Project PromotionsNOhttps://video.igem.org/w/ihqYR3UfveimEtZVv7x6jEhttps://video.igem.org/lazy-static/thumbnails/6f3ddd41-eb26-47b0-bb07-5242a1270e35.jpgGO_Paris-Saclay: EndoSeek, detecting endometriosis (2021) - Project Promotion [English]**Title:** EndoSeek, detecting endometriosis **Description:** iGEM GO Paris-Saclay 2021 is pleased to announce the project EndoSeek. It concerns the development of a new method of diagnosis of endometriosis. This disease affects 1 woman out of 10 causing painful symptoms for the patients: painful menstruation, infertility... Current diagnostic methods are costly and invasive. We propose to target de-regulated miRNAs after a blood test and to reveal them via a Crispr-Cas cascade. Join us on this journey! We invite you to visit our social media and website! [Wiki](https://2021.igem.org/Team:GO_Paris-Saclay)https://static.igem.org/peertube/streaming-playlists/hls/8bf6a6ee-34ef-47e5-abe0-40295a999306/15ede644-f8ae-4582-b71e-644a0735a803-master.m3u8https://video.igem.org/videos/embed/ihqYR3UfveimEtZVv7x6jE12051732021-07-27T15:07:00.152ZendometriosistabooYES2021 Project PromotionsNOhttps://video.igem.org/w/4ZBmZCfAn5oagugHLR6Z4ehttps://video.igem.org/lazy-static/thumbnails/8839c7f7-3a43-489a-8b32-40c20ca192f3.jpgGO_Paris-Saclay: EndoSeek, detecting endometriosis (2021) - Project Promotion [French]**Title:** EndoSeek, detecting endometriosis **Description:** iGEM GO Paris-Saclay 2021 is pleased to announce the project EndoSeek. It concerns the development of a new method of diagnosis of endometriosis. This disease affects 1 woman out of 10 causing painful symptoms for the patients: painful menstruation, infertility... Current diagnostic methods are costly and invasive. We propose to target de-regulated miRNAs after a blood test and to reveal them via a Crispr-Cas cascade. Join us on this journey! We invite you to visit our social media and website! [Wiki](https://2021.igem.org/Team:GO_Paris-Saclay)https://static.igem.org/peertube/streaming-playlists/hls/20569a7b-bc92-4696-a746-7e9f82951bd7/27a6b2e8-e208-477d-8137-ea0be345db94-master.m3u8https://video.igem.org/videos/embed/4ZBmZCfAn5oagugHLR6Z4e1200162021-07-27T15:08:01.507ZtabooendometriosisYES2021 Project PromotionsNOhttps://video.igem.org/w/qMYzVwTf9QwMxoDXKBp5HAhttps://video.igem.org/lazy-static/thumbnails/4f4afc11-2840-4688-a234-58116b18a00d.jpgGO_Paris-Saclay: EndoSeek, detecting endometriosis (2021) - Project Promotion [Russian]**Title:** EndoSeek, detecting endometriosis **Description:** iGEM GO Paris-Saclay 2021 is pleased to announce the project EndoSeek. It concerns the development of a new method of diagnosis of endometriosis. This disease affects 1 woman out of 10 causing painful symptoms for the patients: painful menstruation, infertility... Current diagnostic methods are costly and invasive. We propose to target de-regulated miRNAs after a blood test and to reveal them via a Crispr-Cas cascade. Join us on this journey! We invite you to visit our social media and website! [Wiki](https://2021.igem.org/Team:GO_Paris-Saclay)https://static.igem.org/peertube/streaming-playlists/hls/c8c6ab4e-1798-4898-b64f-08aea0e75ee4/06073e15-42c8-4026-b756-250c3c692042-master.m3u8https://video.igem.org/videos/embed/qMYzVwTf9QwMxoDXKBp5HA120072021-07-27T15:10:29.943ZendometriosistabooYES2021 Project PromotionsNOhttps://video.igem.org/w/iv6QEJPGcCw15eHvxpd7mLhttps://video.igem.org/lazy-static/thumbnails/7ba571df-a91d-4d47-974a-e1eda5589de9.jpgGreatBay_SCIE: Oncokiller (2021) - Project Promotion [English]**Warning:** This video has no captions. **Title:** Oncokiller **Description:** This video is showing a cancer cell prowling in the body of a patient, trying to steal glucose for energy. A police team of chemo- and radiotherapy are searching for it, while causing a havoc in the patient's body. The cancer cell have found the glucose, but our protagonist, the subject of our team's project, OncoKiller, a targeted drug delivery system, stand in front of him. He gives the cancer cell a fatal strike and saves the patient's life. [Wiki](https://2021.igem.org/Team:GreatBay_SCIE)https://static.igem.org/peertube/streaming-playlists/hls/8dbb8667-fb2b-426a-b132-31f746d120fc/4c13a0d9-eb1d-4dd2-a807-0eff1a518927-master.m3u8https://video.igem.org/videos/embed/iv6QEJPGcCw15eHvxpd7mL116015502021-07-27T15:10:30.919ZYES2021 Project PromotionsNOhttps://video.igem.org/w/8zjHA3pr7WnZMc4iiG8aiLhttps://video.igem.org/lazy-static/thumbnails/88b6c0c4-9708-4935-a686-63ef0b90aa57.jpgGreatBay_SZ: ARTAG - Artificially Revolutionized Tracking Art Gadget (2021) - Project Promotion [...**Title:** ARTAG - Artificially Revolutionized Tracking Art Gadget **Description:** Artwork is hard-won, but artists are plagued by forgery or damage. GreatBay_SZ is committed to the development of concealed, practical and confidential biological spores. By using the CRISPR detection technology, our spores can achieve the purpose of anti-counterfeiting and traceability. [Wiki](https://2021.igem.org/Team:GreatBay_SZ)https://static.igem.org/peertube/streaming-playlists/hls/3d570cbf-bebd-41d5-955b-3b2cab447e42/ad99cc56-b423-4694-9005-cc73406b3fb1-master.m3u8https://video.igem.org/videos/embed/8zjHA3pr7WnZMc4iiG8aiL12006492021-07-27T15:11:08.324ZYES2021 Project PromotionsNOhttps://video.igem.org/w/hfoB8ZVu1muKFLUvQeAPQVhttps://video.igem.org/lazy-static/thumbnails/cd602b48-6ffd-42bf-8dfc-d6c9ed2f56f9.jpgGreatBay_United: Artificial Limulus Reagent (2021) - Project Promotion [English]**Title:** Artificial Limulus Reagent **Description:** The number of horseshoe crabs has declined sharply since humans used their blood reagent for bacterial endotoxin detection. To save this endangered species, our team tries to develop artificial reagent as alternative. Except for animal protection, we hope to innovate the detection technology. [Wiki](https://2021.igem.org/Team:GreatBay_United)https://static.igem.org/peertube/streaming-playlists/hls/8394900b-7973-4ab2-8df7-3699cfee6b11/29022103-b534-4902-9e4c-419ad66dd5dd-master.m3u8https://video.igem.org/videos/embed/hfoB8ZVu1muKFLUvQeAPQV11909572021-07-27T15:11:44.886ZYES2021 Project PromotionsNOhttps://video.igem.org/w/kRs1UhQgyy8ugEgwy3VMjBhttps://video.igem.org/lazy-static/thumbnails/9cd6b477-9fb3-41fe-b585-c96f8a508000.jpgGreece_United: Epione (2021) - Project Promotion [English]**Title:** Epione **Description:** Our project aims to tackle Osteoarthritis. For this reason, cells will be genetically modified and injected into the affected joint to produce exosomes and express a miRNA. In this way, exosomes will be produced carrying the miRNA. Due to a guiding tag, the exosomes will target chondrocytes releasing the miRNA inside them. The miRNA will inhibit the expression of certain genes overexpressed in Osteoarthritis, preventing the progression of the disease. [Wiki](https://2021.igem.org/Team:Greece_United)https://static.igem.org/peertube/streaming-playlists/hls/a0c51ca6-b037-427a-99fe-101424a978f3/08a1573c-5a4b-4a9e-9120-344ea617230a-master.m3u8https://video.igem.org/videos/embed/kRs1UhQgyy8ugEgwy3VMjB1100492021-07-27T15:11:46.194ZYES2021 Project PromotionsNOhttps://video.igem.org/w/kfhssb58H6Xztbhn4FdDv8https://video.igem.org/lazy-static/thumbnails/826a404b-1e8a-4eb0-a238-ee8ecbd2a70b.jpgGroningen: Bye-Monia (2021) - Project Promotion [English]**Title:** Bye-Monia **Description:** The iGEM Groningen 2021 team came up with a solution that reduces ammonia emissions and produces a feed additive that benefits farmers as well! Our innovative idea is to employ Baker’s yeast to produce a feed additive. Any leftover ammonia will be captured and fed back to our GMO, closing a sustainable circle to tackle the nitrogen crisis. With team members from all over the world, our video has subtitles in our 5 main languages. [Wiki](https://2021.igem.org/Team:Groningen)https://static.igem.org/peertube/streaming-playlists/hls/9bdc3050-45ce-41c1-a1cf-34c245f8043d/6e753f2a-9845-4334-81e4-5cfe4d51894a-master.m3u8https://video.igem.org/videos/embed/kfhssb58H6Xztbhn4FdDv811401322021-07-27T15:12:27.514ZS.cerevisiaenitrogencrisisYES2021 Project PromotionsNOhttps://video.igem.org/w/m7p2CgHtVJwf91Z1fVMEQnhttps://video.igem.org/lazy-static/thumbnails/d9110ce8-b2c1-465a-b39c-4c67f4084034.jpgGuelph: Genetically Engineering Plants to Resist Climate Change (2021) - Project Promotion [English]**Title:** Genetically Engineering Plants to Resist Climate Change **Description:** The iGEM team at University of Guelph is a passionate group of students who are committed to using CRISPR technology to discover new and innovative ways of engineering plants to be resistant to extreme climate events and weather conditions. If successful, this technology opens doors for the future of the Agriculture and Horticulture industries to explore further innovation using this technology. [Wiki](https://2021.igem.org/Team:Guelph)https://static.igem.org/peertube/streaming-playlists/hls/a2db6d66-61e1-431f-8902-54dca72d28e5/4ceea897-3d82-473f-aee8-f36a2b0aa4e4-master.m3u8https://video.igem.org/videos/embed/m7p2CgHtVJwf91Z1fVMEQn940562021-07-27T15:13:04.208ZagricultureclimatechangeYES2021 Project PromotionsNOhttps://video.igem.org/w/35333wfoADRqQgDgtVHXZthttps://video.igem.org/lazy-static/thumbnails/4bde940b-5bff-4e08-9e71-4c6aeb30e14b.jpgGunma: Breakdown Biofilms in Baths (2021) - Project Promotion [English]**Title:** Breakdown Biofilms in Baths **Description:** Gunma is famous for hot springs, so we want to tackle a problem related to the hotsprings. Legionella is one of the problem. However it is protected by biofilms and this makes sterrilzation of bacteria very difficult. Our team decided to find a method to break down biofilm. [Wiki](https://2021.igem.org/Team:Gunma)https://static.igem.org/peertube/streaming-playlists/hls/10c281b4-3cd7-4613-aa28-ca4eefa3b599/20739585-ad8f-40e5-902a-7d7d5170b2ca-master.m3u8https://video.igem.org/videos/embed/35333wfoADRqQgDgtVHXZt1200682021-07-27T15:13:42.587ZenvironmentJapanYES2021 Project PromotionsNOhttps://video.igem.org/w/eVvBiSiuhA95Rxq5CgpoByhttps://video.igem.org/lazy-static/thumbnails/b4ec01d9-71c5-42ba-ad28-813935f591a6.jpgGunma: Breakdown Biofilms in Baths (2021) - Project Promotion [Japanese]**Title:** Breakdown Biofilms in Baths **Description:** Gunma is famous for hot springs, so we want to tackle a problem related to the hotsprings. Legionella is one of the problem. However it is protected by biofilms and this makes sterrilzation of bacteria very difficult. Our team decided to find a method to break down biofilm. [Wiki](https://2021.igem.org/Team:Gunma)https://static.igem.org/peertube/streaming-playlists/hls/70bf782c-f9d6-46c1-b0bf-81a016302f2e/8db6e305-a74f-4363-9011-fc017c3e4f38-master.m3u8https://video.igem.org/videos/embed/eVvBiSiuhA95Rxq5CgpoBy1200212021-07-27T15:14:20.782ZenvironmentJapanYES2021 Project PromotionsNOhttps://video.igem.org/w/rDiV36ZjhyrsAy4LznAyeGhttps://video.igem.org/lazy-static/thumbnails/519f387b-d0f2-4d02-874d-e0dfa9078046.jpgGXU-China: Phage vector vaccine for tuberculosis (2021) - Project Promotion [English]**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Phage vector vaccine for tuberculosis **Description:** Tuberculosis has been killing millions of people and still cannot be completely defeated. Based on the principle that phage could make bacteria lyse specifically, we proposed to develop a phage vector vaccine for tuberculosis. [Wiki](https://2021.igem.org/Team:GXU-China)https://static.igem.org/peertube/streaming-playlists/hls/cfaa06b1-42ae-4165-957a-73203675735a/a371c7cd-7f59-47da-ba85-95b1b04c461d-master.m3u8https://video.igem.org/videos/embed/rDiV36ZjhyrsAy4LznAyeG1190412021-07-27T15:14:52.748ZTUBERCULOSISPHAGEYES2021 Project PromotionsNOhttps://video.igem.org/w/uFY5cFYCzhEFavxwuSzN4ihttps://video.igem.org/lazy-static/thumbnails/8588c5d5-5741-4dbf-a947-0e8e59c01e77.jpgHamburg: E.T - The Electron Transferial (2021) - Project Promotion [English]**Title:** E.T - The Electron Transferial **Description:** Ever wondered what would happen if we continued doing things the same way as we’ve always done them? If we left our planet vulnerable to annihilation and risk our own extinction? Well, we believe in science and progress and don’t want to imagine living in an expiring world. And that’s why we developed a new innovative way of producing drugs and biofuels, cheap and carbon neutral. With the help of microorganisms and Cytochrom-P450 enzymes we will change the world to the better. [Wiki](https://2021.igem.org/Team:Hamburg)https://static.igem.org/peertube/streaming-playlists/hls/e8547204-58e2-495f-b255-6067bd8c7aff/ff6417c0-c28c-4ecb-b621-298779d7fdee-master.m3u8https://video.igem.org/videos/embed/uFY5cFYCzhEFavxwuSzN4i1190322021-07-27T15:14:54.200ZYES2021 Project PromotionsNOhttps://video.igem.org/w/6c1B1NjK4YCWKHuFWPmGAXhttps://video.igem.org/lazy-static/thumbnails/0b823479-c170-44fe-85fa-21cdf1080473.jpgHarvard: DNA-to-Z (2021) - Project Promotion [English]**Title:** DNA-to-Z **Description:** Our world is quickly running out of data storage space. One explored but not commonly implemented idea is to store data into DNA nucleotides. Harvard iGEM 2021 presents DNA-to-Z: an end-to-end system composed of an automated portable device and computer program to efficiently convert data into DNA and back. DNA-to-Z aims to pioneer DNA data storage in the real world as an accessible and sustainable data storage solution. [Wiki](https://2021.igem.org/Team:Harvard)https://static.igem.org/peertube/streaming-playlists/hls/2a073f2e-93ee-4aae-ba49-8eb48cc3cf1b/49ac2c6b-31ba-4189-be31-ee27b5776e8d-master.m3u8https://video.igem.org/videos/embed/6c1B1NjK4YCWKHuFWPmGAX12001332021-07-27T15:17:32.063ZDATADNAYES2021 Project PromotionsNOhttps://video.igem.org/w/ffVqh8yGvS6jxse23hyFbKhttps://video.igem.org/lazy-static/thumbnails/70b5201e-b3fa-4563-9f21-dc79996399f0.jpgHeidelberg: Cloning with Natural Transformation - How To Train Your Microbiome (2021) - Project P...**Title:** Cloning with Natural Transformation - How To Train Your Microbiome **Description:** Many of today’s „diseases of affluence“, like obesity, have a correlation with the microbiota. Our new approach to treat those focuses on cloning genes in bacteria inside their natural habitat using the natural competence of cells to take up DNA in the process of natural transformation (NT). [Wiki](https://2021.igem.org/Team:Heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/7375463e-b703-4ffd-b075-a20ac4af02eb/6c88aa5a-64bf-4131-83f2-c9dfa82e8534-master.m3u8https://video.igem.org/videos/embed/ffVqh8yGvS6jxse23hyFbK12001652021-07-27T15:17:33.870ZNaturalTransformationMicrobiomeYES2021 Project PromotionsNOhttps://video.igem.org/w/kHR6pVLj56HbyULJc4Hosohttps://video.igem.org/lazy-static/thumbnails/cbdb7e23-5473-4e92-8f42-9d909b40d41c.jpgHeidelberg: Cloning with Natural Transformation - How To Train Your Microbiome (2021) - Project P...**Title:** Cloning with Natural Transformation - How To Train Your Microbiome **Description:** Many of today’s „diseases of affluence“, like obesity, have a correlation with the microbiota. Our new approach to treat those focuses on cloning genes in bacteria inside their natural habitat using the natural competence of cells to take up DNA in the process of natural transformation (NT). [Wiki](https://2021.igem.org/Team:Heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/9fb5624a-158a-4893-876b-d2225f5d350a/08e96403-6a4d-4baa-af34-ea9a12cbb10a-master.m3u8https://video.igem.org/videos/embed/kHR6pVLj56HbyULJc4Hoso120042021-07-27T15:17:35.679ZNaturalTransformationMicrobiomeYES2021 Project PromotionsNOhttps://video.igem.org/w/eTzuawej6ETWBAAiGuHHsYhttps://video.igem.org/lazy-static/thumbnails/ef7b37c8-7434-4801-890a-6c9631c32bd6.jpgHeidelberg: Cloning with Natural Transformation - How To Train Your Microbiome (2021) - Project P...**Title:** Cloning with Natural Transformation - How To Train Your Microbiome **Description:** Many of today’s „diseases of affluence“, like obesity, have a correlation with the microbiota. Our new approach to treat those focuses on cloning genes in bacteria inside their natural habitat using the natural competence of cells to take up DNA in the process of natural transformation (NT). [Wiki](https://2021.igem.org/Team:Heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/707a5efe-eb3f-422b-bbe4-f2ababffcf48/ddf52aee-4013-490d-b398-ee56cd2f5a80-master.m3u8https://video.igem.org/videos/embed/eTzuawej6ETWBAAiGuHHsY1200162021-07-27T15:17:37.335ZNaturalTransformationMicrobiomeYES2021 Project PromotionsNOhttps://video.igem.org/w/598iGK1e64CgEmtwjKfcWchttps://video.igem.org/lazy-static/thumbnails/2c6fde95-e517-41c0-9e47-97905b6f41f9.jpgHiZJU-China: EE2limination——Elimination of EE2 (2021) - Project Promotion [English]**Title:** EE2limination——Elimination of EE2 **Description:** 17 α-ethynyl estradiol(EE2) is an artificial estrogen which will cause some serious diseases after intake. Because of no effective degradation method, estrogens are still accumulating in the environment. Therefore, HiZJU team decided to solve EE2. We prepare to obtain target genes from ammonia oxidizing bacteria and create bacteria that can degrade EE2 by gene editing. Besides, the EE2 detection system uses yeast-two hybrid technique to ensure high accuracy. [Wiki](https://2021.igem.org/Team:HiZJU-China)https://static.igem.org/peertube/streaming-playlists/hls/218701bd-88fb-4ec1-9221-ad69ce0014f3/4d11a3f2-66d0-4d1e-8947-2f4754e64346-master.m3u8https://video.igem.org/videos/embed/598iGK1e64CgEmtwjKfcWc1200222021-07-27T15:17:38.214ZEE2YES2021 Project PromotionsNOhttps://video.igem.org/w/cWivY66CwaMYZjp6P4ShG5https://video.igem.org/lazy-static/thumbnails/3a62dd29-afe8-4314-a410-bf228f9c3d36.jpgHKBU: An aptamer drug: From functional study of sclerostin loops to FDA Orphan D... (2021) - Proj...**Title:** An aptamer drug: From functional study of sclerostin loops to FDA Orphan Drug Designation for osteogenesis imperfecta **Description:** David is a boy who suffers from frequent bone fractures as he has osteogenesis imperfecta. Some drugs like antibodies may cure the disease but might cause cardiovascular diseases. Currently, we are developing a new drug, aptamer, which shows promising bone anabolic potential against osteogenesis imperfecta, while having no side effects like cardiovascular diseases. Our aptamer drug has been awarded Orphan Drug Designation from US FDA, thus proving the potential of our drug. [Wiki](https://2021.igem.org/Team:HKBU)https://static.igem.org/peertube/streaming-playlists/hls/60a97bdf-1c47-4cf2-8dba-07d11cd7db74/634b9103-d7ed-421c-bd95-a868169a6c85-master.m3u8https://video.igem.org/videos/embed/cWivY66CwaMYZjp6P4ShG51200172021-07-27T15:18:08.493ZRare DiseaseOrphan Drug DesignationYES2021 Project PromotionsNOhttps://video.igem.org/w/ogCEmEkBXDtcGgP3YUaR2whttps://video.igem.org/lazy-static/thumbnails/5fe31eb9-0a1b-4f68-9e92-d5ee76d5c75e.jpgHK_CPU-WFN-WYY: SSS (Super Spider Silk) (2021) - Project Promotion [English]**Title:** SSS (Super Spider Silk) **Description:** A suspect was founded in an assault of illegal disposal of textile. He claimed himself to be innocent and refuse to corporate with. Under no choice, the inspector had to interrogate him for intelligence. Throughout the video you will find our goal this year and the potential of spidroin. Enjoy!!! [Wiki](https://2021.igem.org/Team:HK_CPU-WFN-WYY)https://static.igem.org/peertube/streaming-playlists/hls/b457cce7-7fd0-488c-880b-c59024c67ee4/ee9e81a2-e2ad-4b05-9ec6-f548c859caf8-master.m3u8https://video.igem.org/videos/embed/ogCEmEkBXDtcGgP3YUaR2w1130232021-07-27T15:18:09.640ZSpidroinProject SSSYES2021 Project PromotionsNOhttps://video.igem.org/w/qGurXne6WmRVFTvVxazLw8https://video.igem.org/lazy-static/thumbnails/0238c528-8506-4568-9e7b-4969583de691.jpgHK_GTC: PRACTICAL (2021) - Project Promotion [English]**Title:** PRACTICAL **Description:** As an add-on to our result from 2019, we aim to propose a faster method of recycling plastic. Using a dual enzyme system (a chimera of PETase mutant and MHETase), we can depolymerize PET plastic into its constituting monomers, which may then be used to resynthesize PET plastic. [Wiki](https://2021.igem.org/Team:HK_GTC)https://static.igem.org/peertube/streaming-playlists/hls/c8029c2a-eee1-42d5-92dc-b63b56735cdb/27912faa-f02e-41ce-acba-34eb2f712d5c-master.m3u8https://video.igem.org/videos/embed/qGurXne6WmRVFTvVxazLw81200372021-07-27T15:18:55.286ZYES2021 Project PromotionsNOhttps://video.igem.org/w/v5KZo3vGY7o4t7r5pWK9NDhttps://video.igem.org/lazy-static/thumbnails/08dcc285-57f3-499b-8c55-322a5aa05882.jpgHKIS: Vib-Check (2021) - Project Promotion [English]**Title:** Vib-Check **Description:** Vibrio bacteria are a group of extremely deadly marine bacteria. Our team’s goal is to provide a cheap and effective method for detecting Vibrio and a cheap and manageable method for purifying oysters. Ultimately, we aim to assist in the revival of Hong Kong’s oyster farming industry. [Wiki](https://2021.igem.org/Team:HKIS)https://static.igem.org/peertube/streaming-playlists/hls/eb831b08-5707-4764-a4dc-ae3081f6eaa9/c7283da6-ed21-4e8a-b5e6-37362f9e0dfe-master.m3u8https://video.igem.org/videos/embed/v5KZo3vGY7o4t7r5pWK9ND1200222021-07-27T15:20:57.193ZYES2021 Project PromotionsNOhttps://video.igem.org/w/7RMLg6g861a1whYFRdQopVhttps://video.igem.org/lazy-static/thumbnails/cd9e56b4-37fa-4d30-b3de-d47f7a2ba07f.jpgHK_SSC: Synthesis of Valerolactam by Synechococcus elongatus UTEX 2973 (2021) - Project Promotion...**Title:** Synthesis of Valerolactam by Synechococcus elongatus UTEX 2973 **Description:** 2021 iGEM team HK_SSC’s project focuses on engineering a cyanobacterium strain Synechococcus elongatus UTEX 2973 to produce valerolactam with carbon dioxide as a carbon source. This approach aims to provide a green alternative to the petrochemical synthesis of valerolactam. The valerolactam obtained can be further processed into nylons or components in drugs. [Wiki](https://2021.igem.org/Team:HK_SSC)https://static.igem.org/peertube/streaming-playlists/hls/378a7aad-45f7-4a78-bf34-50ce7943b223/e2b1241a-f90c-474a-a3e1-ad9859061a6f-master.m3u8https://video.igem.org/videos/embed/7RMLg6g861a1whYFRdQopV1170492021-07-27T15:21:53.112ZlactamvalerolactamYES2021 Project PromotionsNOhttps://video.igem.org/w/huCuxyi46zqh7L16wv8xU9https://video.igem.org/lazy-static/thumbnails/420912dc-dd56-4139-8524-a61c8b1fa91b.jpgHKUST: ShellBi - You're saxi and I know it: biosensor for saxitoxin (2021) - Project Promotion [E...**Title:** ShellBi - You're saxi and I know it: biosensor for saxitoxin **Description:** We are designing a prokaryotic biosensor for the detection of paralytic shellfish toxins (PST) such as saxitoxin and tetrodotoxin. Saxitoxin and veratridine have opposite effects on ion influx in cyanobacteria. We utilize this antagonism to test for the presence of saxitoxin and other PSTs in shellfish samples. A fluorescent colour-based readout is produced through the engineered two-component system, which has evolved to respond to osmolarity change. [Wiki](https://2021.igem.org/Team:HKUST)https://static.igem.org/peertube/streaming-playlists/hls/8591887f-c76a-4960-a7f8-80eddc121514/1ec8275c-701e-41c4-9d34-db3c82b630ce-master.m3u8https://video.igem.org/videos/embed/huCuxyi46zqh7L16wv8xU91140882021-07-27T15:21:54.302ZYES2021 Project PromotionsNOhttps://video.igem.org/w/5fq465Br1fUvS6D5UCvHgQhttps://video.igem.org/lazy-static/thumbnails/034339bc-6dc4-4d85-8b8c-3bd0cc6c6743.jpgHong_Kong_HKU: Eco.cyan: A self-sustaining PET plastic degradation system (2021) - Project Promot...**Warning:** This video has no captions. **Title:** Eco.cyan: A self-sustaining PET plastic degradation system **Description:** HKU iGEM 2021 is looking to solve the global plastic waste problem by creating a self-sustaining PET degradation system. The system involves E. coli and S. elongatus. Our engineered E. coli produces PETase and MHETase which degrade PET into its monomers, while S. elongatus, a cyanobacteria, secretes sucrose that E. coli can use as an energy source. E. coli also produces bicarbonate to help improve photosynthetic efficiency of S. elongatus. [Wiki](https://2021.igem.org/Team:Hong_Kong_HKU)https://static.igem.org/peertube/streaming-playlists/hls/2267ca6e-bb99-42b9-9e2a-d1c3bb943a22/ff433c6d-ebf3-4d5d-abf3-5b629c5d6be0-master.m3u8https://video.igem.org/videos/embed/5fq465Br1fUvS6D5UCvHgQ1200552021-07-27T15:22:58.064ZplasticsYES2021 Project PromotionsNOhttps://video.igem.org/w/d3Tg2dv1upcCa1xHSPSbEyhttps://video.igem.org/lazy-static/thumbnails/5b4f4145-45b8-47f5-b9de-9f730f101bd4.jpgHong_Kong_JSS: AflaCut -Aflatoxin Remover (2021) - Project Promotion [English]**Title:** AflaCut -Aflatoxin Remover **Description:** The enzymes that can degrade aflatoxin will be expressed heterogeneously by probiotic E. coli, so that the products can be used for detoxification and removal of aflatoxin from contaminated food and agricultural products. [Wiki](https://2021.igem.org/Team:Hong_Kong_JSS)https://static.igem.org/peertube/streaming-playlists/hls/6194bdad-9592-4798-a570-489caa56eee4/8bbf7de4-dd38-4103-b40c-589eb7edbe69-master.m3u8https://video.igem.org/videos/embed/d3Tg2dv1upcCa1xHSPSbEy1030332021-07-27T15:24:04.273ZYES2021 Project PromotionsNOhttps://video.igem.org/w/fmJTNJwwgWri5pJCd66dvehttps://video.igem.org/lazy-static/thumbnails/ae210345-bd5c-4618-8fae-0c1268b27b40.jpgHong_Kong_UCCKE: An alternate detection approach for various cancers (2021) - Project Promotion [...**Title:** An alternate detection approach for various cancers **Description:** Currently, various cancer detection methods have various problems which have not been solved, such as the invasiveness of the tests and the time that it takes to have the tests. Hong_Kong_UCCKE hopes that the solution we make (detection via modified E. Coli) can solve the problems that are stated above. [Wiki](https://2021.igem.org/Team:Hong_Kong_UCCKE)https://static.igem.org/peertube/streaming-playlists/hls/74454021-c1ee-4f6b-a38e-d3906f6430e7/803b4e55-5461-4a96-9931-0f0d44dd080a-master.m3u8https://video.igem.org/videos/embed/fmJTNJwwgWri5pJCd66dve1150172021-07-27T15:25:12.542ZYES2021 Project PromotionsNOhttps://video.igem.org/w/jqW3kijeNfYeTguwgeDbKehttps://video.igem.org/lazy-static/thumbnails/afe2d425-5a73-411a-a398-ba75c47dccf9.jpgHopkins: Symbiotic Bacterium Engineering for Treatment of Coral Disease (2021) - Project Promotio...**Title:** Symbiotic Bacterium Engineering for Treatment of Coral Disease **Description:** We’re Hopkins iGEM, a new team! This year, we’re tackling an understudied yet important environmental issue - the opportunistic infection of corals by pathogens like Aspergillus sydowii (and an unfortunate consequence of rising ocean temperatures and reef destruction). Our solution involves the engineering of symbiotic bacteria to secrete antifungal peptides in response to a fungal infection, and through our collaborations we ensure that our work is useful in coral conservation. [Wiki](https://2021.igem.org/Team:Hopkins)https://static.igem.org/peertube/streaming-playlists/hls/953fa65b-2731-41d3-bc64-2134212175ab/c60ff233-a533-4d8e-a64a-51466d443399-master.m3u8https://video.igem.org/videos/embed/jqW3kijeNfYeTguwgeDbKe1190622021-07-27T15:25:13.634ZYES2021 Project PromotionsNOhttps://video.igem.org/w/hCp4qTQAwbeCUdVgzgZmtohttps://video.igem.org/lazy-static/thumbnails/f4daa9b2-402c-4cd9-a016-cb244687e85f.jpgHumboldt_Berlin: TargetTaxi (2021) - Project Promotion [English]**Title:** TargetTaxi **Description:** We, the iGEM Team 2021 of the Humboldt University of Berlin, want to create a synthetic drug delivery system with Salmonella minicells as chassis, as a possibly innovative way to treat cancer. [Wiki](https://2021.igem.org/Team:Humboldt_Berlin)https://static.igem.org/peertube/streaming-playlists/hls/86a73478-ea35-4977-9274-dfc4190da3bc/b7eeece5-8b2b-4421-b122-0dba398cc453-master.m3u8https://video.igem.org/videos/embed/hCp4qTQAwbeCUdVgzgZmto1200382021-07-27T15:25:14.761ZcancerresearchsalmonellaYES2021 Project PromotionsNOhttps://video.igem.org/w/mgpajRJyEGsVQnDwtuHudchttps://video.igem.org/lazy-static/thumbnails/f654c2e5-94af-4c72-9baf-31aecb08bc8e.jpgHUST2-China: NANOCleaner (2021) - Project Promotion [English]**Title:** NANOCleaner **Description:** The super little fur ball for acne treatment [Wiki](https://2021.igem.org/Team:HUST2-China)https://static.igem.org/peertube/streaming-playlists/hls/a41d33fd-78b3-460e-b2be-7dffbaad91bb/eabda523-98ae-4bca-b96f-0500c72650ed-master.m3u8https://video.igem.org/videos/embed/mgpajRJyEGsVQnDwtuHudc1200382021-07-27T15:25:46.065ZYES2021 Project PromotionsNOhttps://video.igem.org/w/gjy6mrYskEMDbbcqxU4aFAhttps://video.igem.org/lazy-static/thumbnails/f95cdf63-0122-4ec2-aa37-1f3ff819849f.jpgHZAU-China: P.E.T: Pets’ Enteric Test (2021) - Project Promotion [English]**Title:** P.E.T: Pets’ Enteric Test **Description:** HZAU-China team is dedicated to diagnosing inflammatory bowel disease (IBD) by introducing engineered probiotics into petfood. The probiotics are designed to release the reporting chemicals and therapeutical proteins if the pathological condition in pet’s intestine is deteriorating. Thus, the owners could figure out whether their pets have been suffering from IBD at an early stage. Meanwhile, our probiotics can constantly produce certain substances that are bound to be beneficial to pets. [Wiki](https://2021.igem.org/Team:HZAU-China)https://static.igem.org/peertube/streaming-playlists/hls/7c103ece-2b00-425a-a689-bddb811d86d4/9940dc63-c037-4674-9773-fd0f5f61b25e-master.m3u8https://video.igem.org/videos/embed/gjy6mrYskEMDbbcqxU4aFA12001812021-07-27T15:27:03.276ZYES2021 Project PromotionsNOhttps://video.igem.org/w/ausvLpptgZgX9ccvHqGnR9https://video.igem.org/lazy-static/thumbnails/a56e6044-0a9b-48ed-bd8a-cb55b35372bc.jpgiBowu-China: Glycyrβ (2021) - Project Promotion [English]**Title:** Glycyrβ **Description:** Introducing Glycyrß: Team iBowu-China recognized that herbal extracts are a major contributor to the curing of illnesses. The question is: can we acquire them in much larger quantities? Derived from licorice, Glycyrrhetinic acid (GA) is a ‘multitalented’ compound with potent effects on ulcers and inflammations. This year, we aim to express ß-glucuronidase in E. coli. with a modified Gus gene to facilitate the optimal conversion of glycyrrhizin into GA. [Wiki](https://2021.igem.org/Team:iBowu-China)https://static.igem.org/peertube/streaming-playlists/hls/4cdb69af-dd07-411a-b099-8aec959e2d36/5b5d1cdb-a942-4b85-b58f-2dab9c507510-master.m3u8https://video.igem.org/videos/embed/ausvLpptgZgX9ccvHqGnR91200692021-07-27T15:27:52.953ZHerbsGusYES2021 Project PromotionsNOhttps://video.igem.org/w/pA3UvhWxW1dKz4zpy1ohAVhttps://video.igem.org/lazy-static/thumbnails/662bc2de-b8fa-48f9-916c-51337bd24ae1.jpgICJFLS: Amylose Straw (2021) - Project Promotion [English]**Title:** Amylose Straw **Description:** China has banned all single-use plastic products, including tableware and straw from 2021. However, people’s enthusiasm for milky tea and other beverages does not decrease. Paper straw is widely used in the market now. But it has many drawbacks, such as bad taste, easily broken, etc. In our project, we will use bacteria to produce amylose which is used to make straw instead of plastic or paper straw. Our goal is to resolve the problem, or at least give alternative paper straw. [Wiki](https://2021.igem.org/Team:ICJFLS)https://static.igem.org/peertube/streaming-playlists/hls/bf03448d-d80b-468d-9488-b9482e9d00d9/e84fdeef-b644-4aa6-9786-d102e8ae3860-master.m3u8https://video.igem.org/videos/embed/pA3UvhWxW1dKz4zpy1ohAV1190282021-07-27T15:28:23.339ZYES2021 Project PromotionsNOhttps://video.igem.org/w/mcgiNpeWtx27SedgD4KpPChttps://video.igem.org/lazy-static/thumbnails/49aab65c-704a-4f0d-889a-626e228311c5.jpgIISc-Bangalore: CellOPHane (2021) - Project Promotion [English]**Title:** CellOPHane **Description:** Team iGEM IISc-Bangalore is working on Project CellOPHane, which seeks to create a functionalized bacterial cellulose filter to combat organophosphate pollution. Organophosphates are used as pesticides globally but are extremely potent neurotoxic agents. We are seeking to degrade the organophosphates present in waterbodies into relatively harmless products. We're also seeking to create a plug-n-play platform to combat other kinds of pollution with minimal modifications. [Wiki](https://2021.igem.org/Team:IISc-Bangalore)https://static.igem.org/peertube/streaming-playlists/hls/a389634c-1bd9-4261-8247-d022f36911ce/e237b492-52e7-45c4-97eb-b5b14c3c231d-master.m3u8https://video.igem.org/videos/embed/mcgiNpeWtx27SedgD4KpPC12002232021-07-27T15:34:01.619ZbioremediationsdgYES2021 Project PromotionsNOhttps://video.igem.org/w/fBGupi99UJhVusAqJ7T8gGhttps://video.igem.org/lazy-static/thumbnails/b6074841-a8db-4c64-a691-9560de587a67.jpgIISc-Bangalore: CellOPHane (2021) - Project Promotion [Bengali]**Title:** CellOPHane **Description:** Team iGEM IISc-Bangalore is working on Project CellOPHane, which seeks to create a functionalized bacterial cellulose filter to combat organophosphate pollution. Organophosphates are used as pesticides globally but are extremely potent neurotoxic agents. We are seeking to degrade the organophosphates present in waterbodies into relatively harmless products. We're also seeking to create a plug-n-play platform to combat other kinds of pollution with minimal modifications. [Wiki](https://2021.igem.org/Team:IISc-Bangalore)https://static.igem.org/peertube/streaming-playlists/hls/765bed04-1b89-49be-896b-db9f7de49122/cb29fb8e-3744-4b6b-bd3a-4fb81d04bb9d-master.m3u8https://video.igem.org/videos/embed/fBGupi99UJhVusAqJ7T8gG1200392021-07-27T15:39:23.125ZsdgbioremediationYES2021 Project PromotionsNOhttps://video.igem.org/w/n4J3Js5WDrwhdc3NuYJU6jhttps://video.igem.org/lazy-static/thumbnails/76b0b7b3-6e23-4aaf-959d-556be35bea7b.jpgIISc-Bangalore: CellOPHane (2021) - Project Promotion [Kannada]**Title:** CellOPHane **Description:** Team iGEM IISc-Bangalore is working on Project CellOPHane, which seeks to create a functionalized bacterial cellulose filter to combat organophosphate pollution. Organophosphates are used as pesticides globally but are extremely potent neurotoxic agents. We are seeking to degrade the organophosphates present in waterbodies into relatively harmless products. We're also seeking to create a plug-n-play platform to combat other kinds of pollution with minimal modifications. [Wiki](https://2021.igem.org/Team:IISc-Bangalore)https://static.igem.org/peertube/streaming-playlists/hls/aa950e3c-e74b-41b2-8b3b-8cd7e3a16794/5b9fe0ad-28a0-484b-962e-f513164ffc64-master.m3u8https://video.igem.org/videos/embed/n4J3Js5WDrwhdc3NuYJU6j1190292021-07-27T15:44:55.823ZsdgbioremediationYES2021 Project PromotionsNOhttps://video.igem.org/w/1LpWey5NNtRnSg8j35qZxyhttps://video.igem.org/lazy-static/thumbnails/9d3d4729-788c-4777-96c1-c2c239c859d6.jpgIISc-Bangalore: CellOPHane (2021) - Project Promotion [Malayalam]**Title:** CellOPHane **Description:** Team iGEM IISc-Bangalore is working on Project CellOPHane, which seeks to create a functionalized bacterial cellulose filter to combat organophosphate pollution. Organophosphates are used as pesticides globally but are extremely potent neurotoxic agents. We are seeking to degrade the organophosphates present in waterbodies into relatively harmless products. We're also seeking to create a plug-n-play platform to combat other kinds of pollution with minimal modifications. [Wiki](https://2021.igem.org/Team:IISc-Bangalore)https://static.igem.org/peertube/streaming-playlists/hls/063379f4-7da9-4fb5-b86a-4aa41392306a/a63a661d-4e1b-4e86-82fa-748848f52d04-master.m3u8https://video.igem.org/videos/embed/1LpWey5NNtRnSg8j35qZxy1200632021-07-27T16:08:39.100ZbioremediationsdgYES2021 Project PromotionsNOhttps://video.igem.org/w/ahs2XR87gyqQrsHMXUkZYhhttps://video.igem.org/lazy-static/thumbnails/b816058e-6f20-480d-aefb-0f972b1316bb.jpgIISc-Bangalore: CellOPHane (2021) - Project Promotion [Hindi]**Title:** CellOPHane **Description:** Team iGEM IISc-Bangalore is working on Project CellOPHane, which seeks to create a functionalized bacterial cellulose filter to combat organophosphate pollution. Organophosphates are used as pesticides globally but are extremely potent neurotoxic agents. We are seeking to degrade the organophosphates present in waterbodies into relatively harmless products. We're also seeking to create a plug-n-play platform to combat other kinds of pollution with minimal modifications. [Wiki](https://2021.igem.org/Team:IISc-Bangalore)https://static.igem.org/peertube/streaming-playlists/hls/4b2e3133-1233-4234-9fb7-f2e9e48a631c/c341d4e5-7cf2-4ce1-bafc-57746a29d5a3-master.m3u8https://video.igem.org/videos/embed/ahs2XR87gyqQrsHMXUkZYh1200232021-07-27T16:14:07.310ZsdgbioremediationYES2021 Project PromotionsNOhttps://video.igem.org/w/7237cpyDzLbWP88eSkoNyjhttps://video.igem.org/lazy-static/thumbnails/4cf3c3bb-5cc3-42cf-b060-ca04e63a0a73.jpgIISc-Bangalore: CellOPHane (2021) - Project Promotion [Tamil]**Title:** CellOPHane **Description:** Team iGEM IISc-Bangalore is working on Project CellOPHane, which seeks to create a functionalized bacterial cellulose filter to combat organophosphate pollution. Organophosphates are used as pesticides globally but are extremely potent neurotoxic agents. We are seeking to degrade the organophosphates present in waterbodies into relatively harmless products. We're also seeking to create a plug-n-play platform to combat other kinds of pollution with minimal modifications. [Wiki](https://2021.igem.org/Team:IISc-Bangalore)https://static.igem.org/peertube/streaming-playlists/hls/30bbdfc6-09d3-4962-9b84-6878fac3646a/43312867-7cc4-4ef8-bc15-ca20e0841796-master.m3u8https://video.igem.org/videos/embed/7237cpyDzLbWP88eSkoNyj1200172021-07-27T16:20:02.988ZsdgbioremediationYES2021 Project PromotionsNOhttps://video.igem.org/w/gC2yenJ8sSekvFQPzmsofKhttps://video.igem.org/lazy-static/thumbnails/9045b615-bd7b-49fe-8bf3-69fe48ef8dda.jpgIISc-Bangalore: CellOPHane (2021) - Project Promotion [Oriya (macrolanguage)]**Title:** CellOPHane **Description:** Team iGEM IISc-Bangalore is working on Project CellOPHane, which seeks to create a functionalized bacterial cellulose filter to combat organophosphate pollution. Organophosphates are used as pesticides globally but are extremely potent neurotoxic agents. We are seeking to degrade the organophosphates present in waterbodies into relatively harmless products. We're also seeking to create a plug-n-play platform to combat other kinds of pollution with minimal modifications. [Wiki](https://2021.igem.org/Team:IISc-Bangalore)https://static.igem.org/peertube/streaming-playlists/hls/7e80d079-80ac-4029-bac8-866f1e4ca61f/48e93568-6b5e-41bb-bac8-afffe1b6382d-master.m3u8https://video.igem.org/videos/embed/gC2yenJ8sSekvFQPzmsofK1120222021-07-27T16:24:59.501ZsdgbioremediationYES2021 Project PromotionsNOhttps://video.igem.org/w/5hJKQqHW8r1jZr2sLAAS2Rhttps://video.igem.org/lazy-static/thumbnails/ae88dac4-a5d9-41f2-9793-c1e8d8cc3f59.jpgIISER_Berhampur: CODE M (2021) - Project Promotion [English]**Title:** CODE M **Description:** MDR-TB is on the rise and its early detection can help us reduce its havoc. Our project is CODE M, a rapid molecular diagnostic kit which will be efficient, sensitive and cost effective making it accessible to both high- and low-resource areas. It will take us closer towards eradicating TB!! [Wiki](https://2021.igem.org/Team:IISER_Berhampur)https://static.igem.org/peertube/streaming-playlists/hls/22bacddc-45db-42a3-bfd4-f91a20aae663/07e2b82d-5ceb-46f9-a984-91377533bb75-master.m3u8https://video.igem.org/videos/embed/5hJKQqHW8r1jZr2sLAAS2R1200602021-07-27T16:25:00.606ZYES2021 Project PromotionsNOhttps://video.igem.org/w/dWU6Xybow7ERW1QDZNtaDwhttps://video.igem.org/lazy-static/thumbnails/ef9aeabb-7d8d-4b2f-a02a-3a9397ea9bac.jpgIISER_Bhopal: BLAST (2021) - Project Promotion [English]**Title:** BLAST **Description:** Cancer is the second leading cause of death worldwide. 90 % of all adult human cancers encompass solid tumours. 19.5 million new cases and nearly 10 million deaths were reported in 2018 due to cancer. Treatment of cancer is both physically and mentally traumatising. Our project aims to reduce the cancer load by significantly regressing tumour size, using an effective antitumor therapy that will lead to tumour-cell-specific apoptosis while ensuring no damage to normal cells. [Wiki](https://2021.igem.org/Team:IISER_Bhopal)https://static.igem.org/peertube/streaming-playlists/hls/68d7efdb-7bb0-462e-87b5-89f1c1fe19bc/bda64e8c-6a06-4288-b2a8-8133f4fa791b-master.m3u8https://video.igem.org/videos/embed/dWU6Xybow7ERW1QDZNtaDw9802232021-07-27T16:25:23.783ZCancer treatmentcancerawarenessYES2021 Project PromotionsNOhttps://video.igem.org/w/a5ZJqqUmB2aqQ8X9C92xy2https://video.igem.org/lazy-static/thumbnails/e018c999-be6e-4f4f-bc89-f3bf0494a717.jpgIISER_Bhopal: BLAST (2021) - Project Promotion [Hindi]**Title:** BLAST **Description:** Cancer is the second leading cause of death worldwide. 90 % of all adult human cancers encompass solid tumours. 19.5 million new cases and nearly 10 million deaths were reported in 2018 due to cancer. Treatment of cancer is both physically and mentally traumatising. Our project aims to reduce the cancer load by significantly regressing tumour size, using an effective antitumor therapy that will lead to tumour-cell-specific apoptosis while ensuring no damage to normal cells. [Wiki](https://2021.igem.org/Team:IISER_Bhopal)https://static.igem.org/peertube/streaming-playlists/hls/4994cd1f-531b-4698-ada7-58e8ce575e45/647f5e88-f09b-4a03-8181-759aaf3ce03d-master.m3u8https://video.igem.org/videos/embed/a5ZJqqUmB2aqQ8X9C92xy2980512021-07-27T16:25:46.964ZCancer treatmentcancerawarenessYES2021 Project PromotionsNOhttps://video.igem.org/w/3ML7AKbJXSZz4ZAdnkc8Xshttps://video.igem.org/lazy-static/thumbnails/d3dcaa97-965b-4758-83e3-b0804bd7b658.jpgIISER_Kolkata: NAMOOSTE (2021) - Project Promotion [English]**Title:** NAMOOSTE **Description:** For the largest dairy-dependent economy globally, sub-clinical bovine mastitis is a silent killer with no visible symptoms. We, the iGEM 2021 team of IISER Kolkata, aim to develop a novel real-time small RNA sensor for early detection and a successive antibiotic-free cure. For more info visit: https://2021.igem.org/Team:IISER_Kolkata Illustrations: https://www.freepik.com/ Music: https://www.bensound.com , https://mixkit.co/free-stock-music/ , https://www.zapsplat.com/ , https://freesound.org/ [Wiki](https://2021.igem.org/Team:IISER_Kolkata)https://static.igem.org/peertube/streaming-playlists/hls/1695eedc-6a11-489f-abf5-2ec8d87a2994/9472b382-4340-4d49-8c41-6915a9a1731c-master.m3u8https://video.igem.org/videos/embed/3ML7AKbJXSZz4ZAdnkc8Xs1200962021-07-27T16:25:47.988ZantibioticresistancemirnaYES2021 Project PromotionsNOhttps://video.igem.org/w/7NKTMDN2T7Uyu9hyZTv7Y5https://video.igem.org/lazy-static/thumbnails/61d46e77-8798-45ab-8b2c-3306000b0f68.jpgIISER_Kolkata: NAMOOSTE (2021) - Project Promotion [Malayalam]**Title:** NAMOOSTE **Description:** For the largest dairy-dependent economy globally, sub-clinical bovine mastitis is a silent killer with no visible symptoms. We, the iGEM 2021 team of IISER Kolkata, aim to develop a novel real-time small RNA sensor for early detection and a successive antibiotic-free cure. For more info visit: https://2021.igem.org/Team:IISER_Kolkata Illustrations: https://www.freepik.com/ Music: https://www.bensound.com , https://mixkit.co/free-stock-music/ , https://www.zapsplat.com/ , https://freesound.org/ [Wiki](https://2021.igem.org/Team:IISER_Kolkata)https://static.igem.org/peertube/streaming-playlists/hls/371e1867-7a19-4e60-83c8-9c7dcd4c0ce4/b3715a23-ce23-44e2-b052-638790ddd8c5-master.m3u8https://video.igem.org/videos/embed/7NKTMDN2T7Uyu9hyZTv7Y51200112021-07-27T16:26:18.088ZmirnaantibioticresistanceYES2021 Project PromotionsNOhttps://video.igem.org/w/8XRFPcMgpgfzT4vuMNmvfHhttps://video.igem.org/lazy-static/thumbnails/19739b30-bf65-4468-bee1-2cbeefc5b900.jpgIISER_Kolkata: NAMOOSTE (2021) - Project Promotion [Bengali]**Title:** NAMOOSTE **Description:** For the largest dairy-dependent economy globally, sub-clinical bovine mastitis is a silent killer with no visible symptoms. We, the iGEM 2021 team of IISER Kolkata, aim to develop a novel real-time small RNA sensor for early detection and a successive antibiotic-free cure. For more info visit: https://2021.igem.org/Team:IISER_Kolkata Illustrations: https://www.freepik.com/ Music: https://www.bensound.com , https://mixkit.co/free-stock-music/ , https://www.zapsplat.com/ , https://freesound.org/ [Wiki](https://2021.igem.org/Team:IISER_Kolkata)https://static.igem.org/peertube/streaming-playlists/hls/407c7f92-8e02-467d-8824-ad1056672609/c1fe0907-fa80-496d-8589-e8ae9a1fbb59-master.m3u8https://video.igem.org/videos/embed/8XRFPcMgpgfzT4vuMNmvfH1200132021-07-27T16:26:19.112ZmirnaantibioticresistanceYES2021 Project PromotionsNOhttps://video.igem.org/w/hL4zvXLtJCFbvThDn6MnBdhttps://video.igem.org/lazy-static/thumbnails/0d9542c6-7858-4e69-852e-af7cb6693337.jpgIISER_Kolkata: NAMOOSTE (2021) - Project Promotion [Hindi]**Title:** NAMOOSTE **Description:** For the largest dairy-dependent economy globally, sub-clinical bovine mastitis is a silent killer with no visible symptoms. We, the iGEM 2021 team of IISER Kolkata, aim to develop a novel real-time small RNA sensor for early detection and a successive antibiotic-free cure. For more info visit: https://2021.igem.org/Team:IISER_Kolkata Illustrations: https://www.freepik.com/ Music: https://www.bensound.com , https://mixkit.co/free-stock-music/ , https://www.zapsplat.com/ , https://freesound.org/ [Wiki](https://2021.igem.org/Team:IISER_Kolkata)https://static.igem.org/peertube/streaming-playlists/hls/87b9263d-e2b4-4c9c-be7e-75ed710db0a6/5bba92ea-72dd-499b-b031-d23073445171-master.m3u8https://video.igem.org/videos/embed/hL4zvXLtJCFbvThDn6MnBd1200272021-07-27T16:26:20.110ZantibioticresistancemirnaYES2021 Project PromotionsNOhttps://video.igem.org/w/oA8vWVoCuLrvDJZxCgB5f9https://video.igem.org/lazy-static/thumbnails/ae130901-efc6-49aa-9dc0-93e05114aa96.jpgIISER_Mohali: OSCCIT - A saliva-based diagnostic kit for the detection of Oral S... (2021) - Proj...**Title:** OSCCIT - A saliva-based diagnostic kit for the detection of Oral Squamous Cell Carcinoma **Description:** OSCC is one of the most common types of oral cancer. Sadly, most cases go undetected until later stages due to a lack of awareness and available resources. This presents an urgent need to catch the carcinoma early. Our diagnostic kit aims to evaluate the concentration of salivary biomarkers that are dysregulated due to OSCC. The setup consists of 3D printed parts and an engineered cage protein that responds to the biomarkers producing an optical signal that helps calculate their concentration. [Wiki](https://2021.igem.org/Team:IISER_Mohali)https://static.igem.org/peertube/streaming-playlists/hls/b6ecf886-5ccd-4929-a824-0dcc9c2079ec/540dd334-5622-45ef-a090-ad116e772f34-master.m3u8https://video.igem.org/videos/embed/oA8vWVoCuLrvDJZxCgB5f91200662021-07-27T16:26:21.564ZYES2021 Project PromotionsNOhttps://video.igem.org/w/aJJZzf5xw9EMSf7T31dwYJhttps://video.igem.org/lazy-static/thumbnails/44448ae4-f970-4a93-a025-826d30b6b50d.jpgIISER-Pune-India: SynBactory (2021) - Project Promotion [English]**Title:** SynBactory **Description:** Carbon dioxide makes the world burn But earthward it does return Thank the cyanobacteria fair, For sucking it out of the air And fixing it as food! Then said the E coli shrewd: “From you I shall sucrose take And many needed chemicals make, Sans using any fossil fuel, With climate change to duel!” The two make a consortium, -Our project this year- Ecofriendly synthesis, Fighting existential fear Credits: Music from https://mixkit.co/ [Wiki](https://2021.igem.org/Team:IISER-Pune-India)https://static.igem.org/peertube/streaming-playlists/hls/4ed9fb3f-63ed-40f2-ae21-4f58f53ebff2/d5bf7040-84a8-47e3-aa52-9805dfeb469f-master.m3u8https://video.igem.org/videos/embed/aJJZzf5xw9EMSf7T31dwYJ12001142021-07-27T16:26:50.461ZSustainabilityCyanobacteriaYES2021 Project PromotionsNOhttps://video.igem.org/w/cEQSHr7nEnwW7ZxroTU3aVhttps://video.igem.org/lazy-static/thumbnails/89c6afbd-5126-4743-901d-a852b56ed875.jpgIISER-Tirupati_India: OviCloak: A Novel Contraceptive for Uterus Owners (2021) - Project Promotio...**Title:** OviCloak: A Novel Contraceptive for Uterus Owners **Description:** OviCloak is a proposed novel contraceptive for uterus owners. The commensal bacteria of the fallopian tubes will be genetically modified to produce an ovum-specific contraceptive molecule in a regulated manner. This is a non-hormonal approach to the spectrum of Long-Acting Reversible Contraceptives. [Wiki](https://2021.igem.org/Team:IISER-Tirupati_India)https://static.igem.org/peertube/streaming-playlists/hls/5e80e88e-e0a8-44d2-8cbf-11a2f4bdb157/2069e698-7c28-42ab-990f-89509ac6da51-master.m3u8https://video.igem.org/videos/embed/cEQSHr7nEnwW7ZxroTU3aV1190832021-07-27T16:27:46.002ZOvicloakLarcYES2021 Project PromotionsNOhttps://video.igem.org/w/au2KGbDvBaGezSMkfHrF4chttps://video.igem.org/lazy-static/thumbnails/641e5159-f891-4763-9d26-52418634e166.jpgIISER-Tirupati_India: OviCloak: A Novel Contraceptive for Uterus Owners (2021) - Project Promotio...**Title:** OviCloak: A Novel Contraceptive for Uterus Owners **Description:** OviCloak is a proposed novel contraceptive for uterus owners. The commensal bacteria of the fallopian tubes will be genetically modified to produce an ovum-specific contraceptive molecule in a regulated manner. This is a non-hormonal approach to the spectrum of Long-Acting Reversible Contraceptives. [Wiki](https://2021.igem.org/Team:IISER-Tirupati_India)https://static.igem.org/peertube/streaming-playlists/hls/4ccc276e-265a-4886-a302-56dc689cd4ad/eb22cadc-a6a1-4304-bf14-660c401a6a21-master.m3u8https://video.igem.org/videos/embed/au2KGbDvBaGezSMkfHrF4c119022021-07-27T16:28:41.634ZOvicloakLarcYES2021 Project PromotionsNOhttps://video.igem.org/w/gfvcqbgrogtpcyqX9FmjZghttps://video.igem.org/lazy-static/thumbnails/8e0f1bc7-5aaf-49bf-a8f4-71efbc793e56.jpgIISER-Tirupati_India: OviCloak: A Novel Contraceptive for Uterus Owners (2021) - Project Promotio...**Title:** OviCloak: A Novel Contraceptive for Uterus Owners **Description:** OviCloak is a proposed novel contraceptive for uterus owners. The commensal bacteria of the fallopian tubes will be genetically modified to produce an ovum-specific contraceptive molecule in a regulated manner. This is a non-hormonal approach to the spectrum of Long-Acting Reversible Contraceptives. [Wiki](https://2021.igem.org/Team:IISER-Tirupati_India)https://static.igem.org/peertube/streaming-playlists/hls/7b7f7c62-2e53-4be2-9939-dd7b744284d1/674c60e2-d109-424e-828b-23546badbaa0-master.m3u8https://video.igem.org/videos/embed/gfvcqbgrogtpcyqX9FmjZg1190112021-07-27T16:30:05.909ZOvicloakLarcYES2021 Project PromotionsNOhttps://video.igem.org/w/1GC2vD1DSBChFofkxvnvuRhttps://video.igem.org/lazy-static/thumbnails/be0b4bcd-769d-4486-aa4e-ff5135e5d097.jpgIOANNINA: Antibyeotic (2021) - Project Promotion [English]**Title:** Antibyeotic **Description:** Our project, Antibyeotic, tries to give a solution on AMR in a One Health aspect. Our goal is to create a microorganism that can inactivate two classes of antibiotics and self-destruct when there are no antibiotics left. The detection of antibiotics and the consequent destruction of our microorganism will be mediated by a biosensor. Implementing this system in the process of composting in livestock manure will decrease the accumulation of bioactive substances in the environment. [Wiki](https://2021.igem.org/Team:IOANNINA)https://static.igem.org/peertube/streaming-playlists/hls/05abf3e0-6d5a-49d1-a2c9-d4afb48447d5/5e9a0ce0-24e9-4f17-93ce-17bc5beba043-master.m3u8https://video.igem.org/videos/embed/1GC2vD1DSBChFofkxvnvuR1200592021-07-27T16:30:35.052ZYES2021 Project PromotionsNOhttps://video.igem.org/w/5eiBqY4yPZxVpQCfb674GRhttps://video.igem.org/lazy-static/thumbnails/31a46884-8e26-463a-a6d9-484a6ade8855.jpgIonis_Paris: Cobatect (2021) - Project Promotion [English]**Title:** Cobatect **Description:** Vitamin B12 is the only vitamin only present in meat products. Vitamin B12 defficiency due to low meat-consuming diets (vegan, vegetarian) can cause severe health issues. Current tests are not very convenient and are therefore neglected. IONIS Paris aims to develop Cobatect, a bioelectronic device capable of quantifying vitamin B12 blood levels at home. Our solution consists in a co-culture of two modified bacteria that convert B12 concentrations into an electrical output. [Wiki](https://2021.igem.org/Team:Ionis_Paris)https://static.igem.org/peertube/streaming-playlists/hls/224013a4-da16-430c-a5d3-37a493ddfaad/74011f20-c6b8-4dcb-ac27-9cb6e2e3d33a-master.m3u8https://video.igem.org/videos/embed/5eiBqY4yPZxVpQCfb674GR1200552021-07-27T16:30:36.397ZVITAMINB12BIOSENSORYES2021 Project PromotionsNOhttps://video.igem.org/w/96wNy7xNAS5grw9tefNGPjhttps://video.igem.org/lazy-static/thumbnails/07d4fc9b-b6fd-4fcf-81b5-8162373b4c38.jpgIstanbul_Tech: Improving Vitamin B12 Synthesis by Using Protein Scaffold System ... (2021) - Proj...**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Improving Vitamin B12 Synthesis by Using Protein Scaffold System from Waste Lithium-Ion Batteries **Description:** In the world there are many waste lithium-ion batteries that cannot be recycled because of its expensive cost. Its major component is Lithium cobalt oxide (LiCoO2). With using the cobalt ions taken from waste lithium-ion batteries Vitamin B12 can be produced. Moreover, in order to increase production capacity and efficiency, rate-limitin enzymes were brought together using protein scaffolding mechanisms. [Wiki](https://2021.igem.org/Team:Istanbul_Tech)https://static.igem.org/peertube/streaming-playlists/hls/418ecf99-937e-4f96-b19b-0af9870afc48/b7e91331-f781-4f0c-9767-b01746ed619a-master.m3u8https://video.igem.org/videos/embed/96wNy7xNAS5grw9tefNGPj980262021-07-27T16:31:24.384ZYES2021 Project PromotionsNOhttps://video.igem.org/w/xabSHaPfnmC5Ge331YYgaThttps://video.igem.org/lazy-static/thumbnails/24bc100c-602b-4f55-b468-b6666fd9ebfb.jpgIvyMaker-China: The Game-changing Magic Yeast (2021) - Project Promotion [English]**Title:** The Game-changing Magic Yeast **Description:** Seeking a new solution to plastic waste and a way to degrade PET with higher efficiency, our team selected the best anchor protein from 89 candidates and fused it with PETase and MHETase. We then developed a whole-cell biocatalyst by displaying the enzymes on the surface of Candida Tropicalis. [Wiki](https://2021.igem.org/Team:IvyMaker-China)https://static.igem.org/peertube/streaming-playlists/hls/fc53b1a4-b627-4655-8d75-4986fa93ca19/5bedd31e-42fe-4db4-b7bb-c7df1735c270-master.m3u8https://video.igem.org/videos/embed/xabSHaPfnmC5Ge331YYgaT12001892021-07-27T16:31:56.702ZPETasePETdegradationYES2021 Project PromotionsNOhttps://video.igem.org/w/fF1daM3eym4AAPpZDcZDM2https://video.igem.org/lazy-static/thumbnails/0c802f73-3803-47cf-b581-d3201d2e24e3.jpgJiangnan_China: Save Coral Reefs at Risks: Synthesis of an eco-friendly natural ... (2021) - Proj...**Title:** Save Coral Reefs at Risks: Synthesis of an eco-friendly natural bio-sunscreen **Description:** 14,000 tons of sunscreens are deposited into the ocean annually and then worsen the coral bleaching and damage the marine ecosystem. We aims to engineer Saccharomyces cerevisiae to produce an eco-friendly bio-sunscreen made of gadusol to balance the use of sunscreens and protection of coral reefs. [Wiki](https://2021.igem.org/Team:Jiangnan_China)https://static.igem.org/peertube/streaming-playlists/hls/76d213db-535f-4e96-907f-3d9271632bdf/3aa7373e-1402-4f84-8f58-d04457f46fa9-master.m3u8https://video.igem.org/videos/embed/fF1daM3eym4AAPpZDcZDM21200412021-07-27T16:31:58.361Zcoral reefsSunscreenYES2021 Project PromotionsNOhttps://video.igem.org/w/kbVe1mHbt2qa57LE6yho1Thttps://video.igem.org/lazy-static/thumbnails/d3a1dd7d-fdf7-40cd-8661-e8db950a90d5.jpgJiangnan_China: Save Coral Reefs at Risks: Synthesis of an eco-friendly natural ... (2021) - Proj...**Warning:** This video contains wrong or mismatched captions. **Title:** Save Coral Reefs at Risks: Synthesis of an eco-friendly natural bio-sunscreen **Description:** 14,000 tons of sunscreens are deposited into the ocean annually and then worsen the coral bleaching and damage the marine ecosystem. We aims to engineer Saccharomyces cerevisiae to produce an eco-friendly bio-sunscreen made of gadusol to balance the use of sunscreens and protection of coral reefs. [Wiki](https://2021.igem.org/Team:Jiangnan_China)https://static.igem.org/peertube/streaming-playlists/hls/9b63df72-cfb3-4ffb-b75b-87d535078f6b/1fa497cb-c3a6-419d-bf84-e4ea7d224c5e-master.m3u8https://video.igem.org/videos/embed/kbVe1mHbt2qa57LE6yho1T1200132021-07-27T16:32:00.017ZSunscreencoral reefsYES2021 Project PromotionsNOhttps://video.igem.org/w/kFayfiVzDxQLPmZn91pX6Khttps://video.igem.org/lazy-static/thumbnails/65de208d-527f-4a94-8db6-b1ef03609b6d.jpgJianhua: Using Metabolically Engineered Saccharomyces Cerevisiae To Produce HMO ... (2021) - Proj...**Title:** Using Metabolically Engineered Saccharomyces Cerevisiae To Produce HMO 2-FL **Description:** 2-FL attracted much interest as a functional food ingredient because of its nutraceutical and pharmaceutical properties. While some previous measures producing 2-FL are proved uneffective and inefficient, we are trying to produce 2-FL using metabolically engineered saccharomyces cerevisiae. [Wiki](https://2021.igem.org/Team:Jianhua)https://static.igem.org/peertube/streaming-playlists/hls/9f5587d8-b2a8-42a4-ace6-95c948298e61/01e2a65e-c5ac-4cd1-acf4-aa3a70a564b8-master.m3u8https://video.igem.org/videos/embed/kFayfiVzDxQLPmZn91pX6K1200132021-07-27T16:32:30.326ZHMO2′-FucosyllactoseYES2021 Project PromotionsNOhttps://video.igem.org/w/4uBBBiJEE5rtrG2H5s8rrhhttps://video.igem.org/lazy-static/thumbnails/78ad0aa6-878e-4148-8cb5-2a57cf653274.jpgJilin_China: Mosquiet (2021) - Project Promotion [English]**Title:** Mosquiet **Description:** This project intents to construct a mosquito-lured-and-killing device based on an auto-regulating Escherichia coli production system of L-lactic acid and acetic acid by dual dynamic regulation of both quorum sensing and acid response of key genes. [Wiki](https://2021.igem.org/Team:Jilin_China)https://static.igem.org/peertube/streaming-playlists/hls/1c4a307d-556a-4d19-88f0-f55b05632036/33e327b9-6505-4416-9dfe-a09a1bafb05e-master.m3u8https://video.igem.org/videos/embed/4uBBBiJEE5rtrG2H5s8rrh1180522021-07-27T16:32:48.689Z#Asia#New Application(P)YES2021 Project PromotionsNOhttps://video.igem.org/w/ufSic4Xaqhww6BYz8mvNbVhttps://video.igem.org/lazy-static/thumbnails/2318e119-1472-46b2-a573-db5b4e7aff2c.jpgKAIT_Japan: Create a super E. coli! (2021) - Project Promotion [English]**Title:** Create a super E. coli! **Description:** We aim to make E. coli more useful by combing it with the useful functions of other various microbes used in fermented foods. [Wiki](https://2021.igem.org/Team:KAIT_Japan)https://static.igem.org/peertube/streaming-playlists/hls/e4d34aa0-a245-4be1-8312-6ff401a9f959/9f98d81a-3a9c-4215-b277-fd984004b418-master.m3u8https://video.igem.org/videos/embed/ufSic4Xaqhww6BYz8mvNbV1190542021-07-27T16:33:39.265ZE.coliYES2021 Project PromotionsNOhttps://video.igem.org/w/5DQpD8uBH1e7HG4NbdiPGphttps://video.igem.org/lazy-static/thumbnails/46222334-5826-4cdf-8063-dc1dc7aa6de9.jpgKCIS_NewTaipei: D-Licious (2021) - Project Promotion [English]**Title:** D-Licious **Description:** Engineering Butyrate-Producing Bacteria to Combat Vitamin-D Deficiency. [Wiki](https://2021.igem.org/Team:KCIS_NewTaipei)https://static.igem.org/peertube/streaming-playlists/hls/25ace807-a41e-47ae-8c28-f7b1a1c2156b/c817a799-3963-4f00-afed-61fcdd2dcc2a-master.m3u8https://video.igem.org/videos/embed/5DQpD8uBH1e7HG4NbdiPGp1150422021-07-27T16:34:11.149ZYES2021 Project PromotionsNOhttps://video.igem.org/w/cPa6U8vLHXHdrMw5LdQbzEhttps://video.igem.org/lazy-static/thumbnails/e34da0ba-92c2-4785-a14a-6029cd38516c.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [English]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/5faa1771-60c4-4468-b7a6-94d8d3d239c8/e57cd3a5-9f7a-4f79-b704-d0ee05de876f-master.m3u8https://video.igem.org/videos/embed/cPa6U8vLHXHdrMw5LdQbzE11901292021-07-27T16:34:41.856ZYES2021 Project PromotionsNOhttps://video.igem.org/w/syTu7pe2zrcBp4cLzkwm1Hhttps://video.igem.org/lazy-static/thumbnails/eb1b58af-b0e9-4544-bf18-82ddf4c8d763.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Bulgarian]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/d7252264-bb47-4dd6-881a-4bccd2dbecf9/8b1909b1-12c4-47e8-bf27-501e48b1a1cf-master.m3u8https://video.igem.org/videos/embed/syTu7pe2zrcBp4cLzkwm1H119012021-07-27T16:35:12.416ZYES2021 Project PromotionsNOhttps://video.igem.org/w/2PgM3zJf4SkLYYX44atLzQhttps://video.igem.org/lazy-static/thumbnails/3c8fbd95-f1cd-4564-b581-4edc340ab66a.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [German]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/0eb2d18c-0e76-47e4-8350-1e02d68b06c2/0a964b43-6315-4583-8caf-854547b18c29-master.m3u8https://video.igem.org/videos/embed/2PgM3zJf4SkLYYX44atLzQ117072021-07-27T16:35:42.331ZYES2021 Project PromotionsNOhttps://video.igem.org/w/6Wxk8T1yHeHNSTp2BRLupqhttps://video.igem.org/lazy-static/thumbnails/9695ae4a-7cf0-49eb-8609-d4cdc914b6e4.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Tamil]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/301b2a25-7ac2-4bc7-b22e-86f72a8197ce/c1a030dc-2dc4-4b1e-9605-4ff5eb008914-master.m3u8https://video.igem.org/videos/embed/6Wxk8T1yHeHNSTp2BRLupq119062021-07-27T16:36:12.626ZYES2021 Project PromotionsNOhttps://video.igem.org/w/feokdacqjz9DgPgZTYRr8ghttps://video.igem.org/lazy-static/thumbnails/0409d1a3-2396-4e62-840f-acc65364affc.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Russian]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/733e5f51-bfd7-45d8-9c3f-a142b004b0f1/d5313771-aaf2-4c06-a001-70a5431e0bc6-master.m3u8https://video.igem.org/videos/embed/feokdacqjz9DgPgZTYRr8g119012021-07-27T16:36:42.686ZYES2021 Project PromotionsNOhttps://video.igem.org/w/1axYCYep874KvCRgsD6WtBhttps://video.igem.org/lazy-static/thumbnails/d7380330-e4c8-4cd9-baca-a443b66cc3c1.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Portuguese]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/01556670-66a9-412c-81db-65a441df7e71/ba5831cb-f72c-4358-a2e2-bd91ce489011-master.m3u8https://video.igem.org/videos/embed/1axYCYep874KvCRgsD6WtB119022021-07-27T16:37:44.577ZYES2021 Project PromotionsNOhttps://video.igem.org/w/9jt7jiAMHsz7Xf8k9yZopPhttps://video.igem.org/lazy-static/thumbnails/71dcfbcb-8b9b-4d1f-871f-1bdf2ba17b12.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Hindi]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/435d341e-3ebd-4775-8d2b-b1da0eee2ca5/d007ad8d-6134-48a0-88ba-e8c98212e45c-master.m3u8https://video.igem.org/videos/embed/9jt7jiAMHsz7Xf8k9yZopP118022021-07-27T16:37:45.460ZYES2021 Project PromotionsNOhttps://video.igem.org/w/2Cmk3rfXnNQjMp2yHjtAX6https://video.igem.org/lazy-static/thumbnails/f4ba0ecb-324a-4c13-b7b9-ba24b6aaa488.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Italian]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/0d2c7130-7f42-4822-9c54-2a032aa112bb/431b4158-ffe0-46f8-a954-46a5265ba6c9-master.m3u8https://video.igem.org/videos/embed/2Cmk3rfXnNQjMp2yHjtAX6118022021-07-27T16:38:15.854ZYES2021 Project PromotionsNOhttps://video.igem.org/w/sVPwDgXcCZRcr1f7Sc6rAkhttps://video.igem.org/lazy-static/thumbnails/bdb0e429-57c3-4edc-97d8-b8dd2d3067a0.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Chinese]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/da1150ba-0b6d-4a9a-af2a-23a617954283/0a54c82a-6fc0-4fad-ac71-55ff7e0b44a6-master.m3u8https://video.igem.org/videos/embed/sVPwDgXcCZRcr1f7Sc6rAk118052021-07-27T16:38:45.840ZYES2021 Project PromotionsNOhttps://video.igem.org/w/mHsNddxYmmMN9gPXuf2oz3https://video.igem.org/lazy-static/thumbnails/cb97ad02-268f-413e-8aba-50007eb86e0f.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Malay (macrolanguage)]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/a7c0c826-f53b-4a89-9710-ea41ff1afb5c/b964c43d-6d03-4d26-b544-01d9da0b0423-master.m3u8https://video.igem.org/videos/embed/mHsNddxYmmMN9gPXuf2oz3119052021-07-27T16:39:16.391ZYES2021 Project PromotionsNOhttps://video.igem.org/w/756XiwCYiGxvRHvKmPPfCghttps://video.igem.org/lazy-static/thumbnails/1620f20a-d192-4cce-9f31-f8f91b44d8e2.jpgKCL_UK: Renervate Therapeutics (2021) - Project Promotion [Spanish]**Title:** Renervate Therapeutics **Description:** We are Renervate Therapeutics, KCL iGEM 2021. We are a Phase II project building on the foundations of ‘Renervate’ where we designed and modelled a novel therapy for spinal cord injury. Our proposed therapy involves a biocompatible scaffold that will be coated with a mussel foot protein-based bioadhesive. Our therapy is designed to provide support for neurones to grow in the spinal cord and ultimately restore function in the spinal cord. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/312979db-8c47-407b-92ba-7fa8de711037/fd0d8b9e-d331-49e6-9192-65f288316871-master.m3u8https://video.igem.org/videos/embed/756XiwCYiGxvRHvKmPPfCg120012021-07-27T16:39:46.878ZYES2021 Project PromotionsNOhttps://video.igem.org/w/9TmaFjM7GZGrV7GbhwXGTthttps://video.igem.org/lazy-static/thumbnails/0bf91a3c-4b89-4d62-b347-6e05a34efd9a.jpgKEYSTONE: Industry's Got Talent (2021) - Project Promotion [English]**Title:** Industry's Got Talent **Description:** Rubber is severely polluting our environment. In response to the issue, we are hosting an “Industry’s Got Talent” show to seek for the best rubber degrading method. Three authorized judges — a deep ecologist, a factory manager, and the rubber tire himself — are selecting the best candidate. Out of all the competitors, WHO will win the golden buzzer? [Wiki](https://2021.igem.org/Team:KEYSTONE)https://static.igem.org/peertube/streaming-playlists/hls/47f47846-22e1-4d16-be6b-6e514d757841/6c949f6a-eeca-4966-aa93-20c7d7c01b4c-master.m3u8https://video.igem.org/videos/embed/9TmaFjM7GZGrV7GbhwXGTt1200182021-07-27T16:39:48.159ZIndustry's Got TalentKeystoneYES2021 Project PromotionsNOhttps://video.igem.org/w/4L8RU2J3zUkX82zS3E4nP9https://video.igem.org/lazy-static/thumbnails/3729daee-598c-46b9-8c29-ff917cb816ec.jpgKorea_HS: Designing Cancer-Specific Cell-Penetrating Peptide for Efficient Deliv... (2021) - Proj...**Title:** Designing Cancer-Specific Cell-Penetrating Peptide for Efficient Delivery of siRNA into Cancer Cells **Description:** Our project attaches CYP1A1 drug-resistant gene-silencing siRNA and apoptosis-inducing doxorubicin to cancer-specific cell-penetrating peptide BR2 as cargoes. This achieves effective, controlled delivery of siRNA and doxorubicin without marked cytotoxicity or resistance. [Wiki](https://2021.igem.org/Team:Korea_HS)https://static.igem.org/peertube/streaming-playlists/hls/1e74fc66-7536-4ad8-9a38-6bc569fd26ba/e563c6a6-db1e-44ee-a8e6-b114c9f39cae-master.m3u8https://video.igem.org/videos/embed/4L8RU2J3zUkX82zS3E4nP91200492021-07-27T16:40:49.246ZhighschoolrepublicofkoreaYES2021 Project PromotionsNOhttps://video.igem.org/w/hHbdUNBx5cpY5VD4TDPk51https://video.igem.org/lazy-static/thumbnails/f1e1f797-23f7-4543-9336-2938df8119c2.jpgKorea_HS: Designing Cancer-Specific Cell-Penetrating Peptide for Efficient Deliv... (2021) - Proj...**Title:** Designing Cancer-Specific Cell-Penetrating Peptide for Efficient Delivery of siRNA into Cancer Cells **Description:** Our project attaches CYP1A1 drug-resistant gene-silencing siRNA and apoptosis-inducing doxorubicin to cancer-specific cell-penetrating peptide BR2 as cargoes. This achieves effective, controlled delivery of siRNA and doxorubicin without marked cytotoxicity or resistance. [Wiki](https://2021.igem.org/Team:Korea_HS)https://static.igem.org/peertube/streaming-playlists/hls/87520355-b883-4faf-83f0-fdca17a5d65c/adf2e234-3470-45b1-a023-491c03337887-master.m3u8https://video.igem.org/videos/embed/hHbdUNBx5cpY5VD4TDPk51120072021-07-27T16:41:50.026ZrepublicofkoreahighschoolYES2021 Project PromotionsNOhttps://video.igem.org/w/tFeHQSqgFfJYg5vnTxhKMYhttps://video.igem.org/lazy-static/thumbnails/bac1c670-aa35-4f94-ae96-901615872f72.jpgKUAS_Korea: Amphibian chytrid inhibiting probiotics (2021) - Project Promotion [English]**Title:** Amphibian chytrid inhibiting probiotics **Description:** Amphibian chytrid inhibiting probiotics [Wiki](https://2021.igem.org/Team:KUAS_Korea)https://static.igem.org/peertube/streaming-playlists/hls/e02134fc-7a3c-441c-9058-095edafb1386/084920fa-bd5c-4b4e-bbe0-445d4dd6a609-master.m3u8https://video.igem.org/videos/embed/tFeHQSqgFfJYg5vnTxhKMY1200292021-07-27T16:42:18.760ZYES2021 Project PromotionsNOhttps://video.igem.org/w/mrdo7Vj8dQwToaXv6oWK71https://video.igem.org/lazy-static/thumbnails/27c2ef60-e4d2-4fc6-a229-f9b054d01d0a.jpgKU_Leuven: BLADEN (2021) - Project Promotion [English]**Title:** BLADEN **Description:** Project BLADEN or Botanical Accelerated Directed Evolution from KU Leuven will try to introduce the EvolvR mechanism in plant cells for the first time to design an optimized method of creating and selecting desired mutants in plants (Continuous directed evolution). [Wiki](https://2021.igem.org/Team:KU_Leuven)https://static.igem.org/peertube/streaming-playlists/hls/a57bff6b-c8d6-4a52-b226-93a14b4b9e18/2b8e5b28-890d-4b1b-883e-c696b41463a8-master.m3u8https://video.igem.org/videos/embed/mrdo7Vj8dQwToaXv6oWK711200352021-07-27T16:44:06.062ZYES2021 Project PromotionsNOhttps://video.igem.org/w/s5Lz6qBvG35v1EnfuEUZ6vhttps://video.igem.org/lazy-static/thumbnails/3f74e32f-2088-4d2a-85f3-53f5e2844b39.jpgKU_Leuven: BLADEN (2021) - Project Promotion [Dutch]**Title:** BLADEN **Description:** Project BLADEN or Botanical Accelerated Directed Evolution from KU Leuven will try to introduce the EvolvR mechanism in plant cells for the first time to design an optimized method of creating and selecting desired mutants in plants (Continuous directed evolution). [Wiki](https://2021.igem.org/Team:KU_Leuven)https://static.igem.org/peertube/streaming-playlists/hls/d3380c3e-df25-45b9-bc05-111630a55a43/add76a95-4e8b-41ad-a10c-8a1874035449-master.m3u8https://video.igem.org/videos/embed/s5Lz6qBvG35v1EnfuEUZ6v120052021-07-27T16:45:21.739ZYES2021 Project PromotionsNOhttps://video.igem.org/w/81DxS3o5zQHNXhgBQUHG8thttps://video.igem.org/lazy-static/thumbnails/345d7040-0498-4c43-bf9f-414019af9570.jpgKyoto: FLOWEREVER (2021) - Project Promotion [English]**Title:** FLOWEREVER **Description:** Cut flowers add color to our lives. However, many of them are thrown away before reaching consumers due to threats such as viruses, pests, and aging. We aim to combat them by using CRISPR, RNAi, and antimicrobial peptides, and develop an efficient way to produce biomolecules used in these methods. [Wiki](https://2021.igem.org/Team:Kyoto)https://static.igem.org/peertube/streaming-playlists/hls/38c71c79-d6fd-4213-bff5-ffe923ba5339/739ad5f7-e4d5-4189-b3dc-cde46f7673b6-master.m3u8https://video.igem.org/videos/embed/81DxS3o5zQHNXhgBQUHG8t12002272021-07-27T16:45:23.186ZCutFlowersFlowereverYES2021 Project PromotionsNOhttps://video.igem.org/w/19RW13wCd8Z4r17XpxPoCuhttps://video.igem.org/lazy-static/thumbnails/1f3eacc5-dccd-4f4c-8a9b-7d408f4b13f3.jpgLambert_GA: AgroSENSE (2021) - Project Promotion [English]**Title:** AgroSENSE **Description:** Aquaponics systems are a potential solution to food insecurity. However, contemporary small-scale systems experience nutrient fluctuations and plant pathogens. AgroSENSE provides a more accurate method of nutrient level and pathogen surveillance. [Wiki](https://2021.igem.org/Team:Lambert_GA)https://static.igem.org/peertube/streaming-playlists/hls/013cb8a4-94a2-43cc-8dde-c349cb8bc1c4/d1da0bf8-50b5-4ebb-bea6-191b28418765-master.m3u8https://video.igem.org/videos/embed/19RW13wCd8Z4r17XpxPoCu12001952021-07-27T16:45:24.496ZAgriculture Sustainability YES2021 Project PromotionsNOhttps://video.igem.org/w/adHCMJQ2afArnU6YVL61Gmhttps://video.igem.org/lazy-static/thumbnails/9f5ffdf2-339b-4b08-aad6-e39c6dae3820.jpgLeiden: DOPL Lock: A double plasmid system for improved biosafety (2021) - Project Promotion [Eng...**Title:** DOPL Lock: A double plasmid system for improved biosafety **Description:** Many iGEM teams design wonderful solutions to critical world issues, but many of those cannot actually be realized due to concerns regarding biosafety. Among those concerns is the process of horizontal gene transfer, which includes the transfer of plasmids between unrelated bacteria. With ‘DOPL Lock’, the iGEM Leiden 2021 team designed a system to prevent horizontal gene transfer, taking the next step towards safer GMOs. [Wiki](https://2021.igem.org/Team:Leiden)https://static.igem.org/peertube/streaming-playlists/hls/4aa8d4ca-db63-402c-818e-df8013ef414c/8abed1e2-573f-4ca0-8d26-ccdf71816853-master.m3u8https://video.igem.org/videos/embed/adHCMJQ2afArnU6YVL61Gm1200612021-07-27T16:45:52.782ZYES2021 Project PromotionsNOhttps://video.igem.org/w/jD84BnF3fHkg8zXiFSgC9Phttps://video.igem.org/lazy-static/thumbnails/9ba27fcc-2db8-445f-91c9-d74fe9962d83.jpgLethbridge: CyanNoMore (2021) - Project Promotion [English]**Title:** CyanNoMore **Description:** We are the 2021 University of Lethbridge Collegiate iGem Team, and we are here to share our solution to the issue of the harmful build-up of cyanobacteria in lakes, both locally and globally! [Wiki](https://2021.igem.org/Team:Lethbridge)https://static.igem.org/peertube/streaming-playlists/hls/96f35e1c-f803-43b8-9bd8-38504ffca2a7/b3c62e3f-35d0-4502-8a23-af5071fe80c0-master.m3u8https://video.igem.org/videos/embed/jD84BnF3fHkg8zXiFSgC9P1200202021-07-27T16:46:37.465ZYES2021 Project PromotionsNOhttps://video.igem.org/w/vXjJYcrYiVK2owJF6kA2Fmhttps://video.igem.org/lazy-static/thumbnails/9b9a5a4a-10d7-4052-9cce-e90f63c94aed.jpgLethbridge_HS: Knaptime is over! (2021) - Project Promotion [English]**Title:** Knaptime is over! **Description:** Our team is developing an RNAi-based herbicide to use against the invasive plant species spotted knapweed (Centaurea stoebe) in Waterton Lakes National Park in Alberta, Canada. Spotted knapweed harms local environments through monopolization of resources and production of allelochemicals. Reduction of knapweed populations would help preserve biological diversity and possible modifications to our RNAi could assist in controlling other invasive species throughout the world. [Wiki](https://2021.igem.org/Team:Lethbridge_HS)https://static.igem.org/peertube/streaming-playlists/hls/f2927a5a-9764-4758-ad49-8b475760266e/ea13ddbb-76e1-420c-8e0b-4ff9e66ed49e-master.m3u8https://video.igem.org/videos/embed/vXjJYcrYiVK2owJF6kA2Fm1200452021-07-27T16:48:10.217ZRNAiKnaptimeYES2021 Project PromotionsNOhttps://video.igem.org/w/ebfijVHJ55kTEsVSFBeH63https://video.igem.org/lazy-static/thumbnails/72e5686d-3dc4-4c15-9379-e3cc1b0c1cf3.jpgLinkoping_Sweden: CyaSalt (2021) - Project Promotion [English]**Title:** CyaSalt **Description:** The world is facing an immense threat of water shortage. We in the Linköping iGEM 2021 team will use modified cyanobacteria to be able to say CyaSalt and desalinate seawater for agricultural use. Our project creates a sustainable solution to replace current high energy-consuming methods. [Wiki](https://2021.igem.org/Team:Linkoping_Sweden)https://static.igem.org/peertube/streaming-playlists/hls/6ab50d5b-ff97-45dd-9fa6-b73045c14380/a4af2d39-f97e-4c5a-8b08-6ca3b48b526a-master.m3u8https://video.igem.org/videos/embed/ebfijVHJ55kTEsVSFBeH631200592021-07-27T16:48:11.326ZPhototrophEnvironmentYES2021 Project PromotionsNOhttps://video.igem.org/w/nW3tx7f4Xw25hkQzEKT9vahttps://video.igem.org/lazy-static/thumbnails/d632214a-a91d-49e1-86b6-776d428e4ff2.jpgLinkoping_Sweden: CyaSalt (2021) - Project Promotion [Swedish]**Title:** CyaSalt **Description:** The world is facing an immense threat of water shortage. We in the Linköping iGEM 2021 team will use modified cyanobacteria to be able to say CyaSalt and desalinate seawater for agricultural use. Our project creates a sustainable solution to replace current high energy-consuming methods. [Wiki](https://2021.igem.org/Team:Linkoping_Sweden)https://static.igem.org/peertube/streaming-playlists/hls/b19b99be-cb7b-4b25-ba0f-28d3006c7e63/cd503954-8572-4c4e-8fe6-107f7a0dcd23-master.m3u8https://video.igem.org/videos/embed/nW3tx7f4Xw25hkQzEKT9va1200132021-07-27T16:48:12.374ZPhototrophEnvironmentYES2021 Project PromotionsNOhttps://video.igem.org/w/iheNhZPU3mAxCfCMSwDYPDhttps://video.igem.org/lazy-static/thumbnails/3cdae562-17b5-4e36-8f2a-a12444e0aa99.jpgLINKS_China: NeoLeathic Age (2021) - Project Promotion [English]**Title:** NeoLeathic Age **Description:** Links_China aims to engineer a cellulose leather from a co-culture of brewer’s yeast and Kombucha in response to the harms brought by traditional leather production. We use yeast and E.coli to add various characteristics to the leather, hoping to find a new balance between sustainability and style. [Wiki](https://2021.igem.org/Team:LINKS_China)https://static.igem.org/peertube/streaming-playlists/hls/8befc2cd-fccc-4105-b8a7-35d6f9bca8d3/abbeaf58-9fd3-41fc-9814-80b5a26807d0-master.m3u8https://video.igem.org/videos/embed/iheNhZPU3mAxCfCMSwDYPD120018772021-07-27T16:48:13.401ZNatural pigmentSynthetic leatherYES2021 Project PromotionsNOhttps://video.igem.org/w/fpHY9CeDvwkRPzT51VgMRyhttps://video.igem.org/lazy-static/thumbnails/81d8874e-4d32-4074-99a6-a54df7b53b7d.jpgLMSU: ASCEND (2021) - Project Promotion [English]**Title:** ASCEND **Description:** LMSU team is developing a new synbio chassis based on A. platensis. We are optimising the transformation protocol and developing vectors for GM. A custom optogenetic system will control gene expression and biomass production. Our system might be used in space exploration. ASCEND with us! [Wiki](https://2021.igem.org/Team:LMSU)https://static.igem.org/peertube/streaming-playlists/hls/74afe965-171c-4a2a-9661-f081563baab6/41ae2e1b-212c-4e24-8da3-7f23291b1aa8-master.m3u8https://video.igem.org/videos/embed/fpHY9CeDvwkRPzT51VgMRy12001242021-07-27T16:48:14.697ZphototrophoptogeneticYES2021 Project PromotionsNOhttps://video.igem.org/w/p2URfgTwaa6SpSZM9okDEBhttps://video.igem.org/lazy-static/thumbnails/81c4bdcf-7ce6-4367-b4b6-88ffc0010cf8.jpgLubbock_TTU: Chitin-induced detection of amphibian fungal pathogens (2021) - Project Promotion [E...**Title:** Chitin-induced detection of amphibian fungal pathogens **Description:** The chytridiomycosis pandemic caused by the fungi Bd and Bsal has caused global amphibian extinction. Since these fungi contain chitin in their cell walls, we will use chitooligosaccharides as biomarkers of pathogen prevalence. To detect this biomarker, we will develop a microbial biosensor by coupling the V. cholerae one component chitin-sensing system with a GFP reporter in E. coli. This biosensor will support field ecologists with preliminary site testing to inform decision-making strategies. [Wiki](https://2021.igem.org/Team:Lubbock_TTU)https://static.igem.org/peertube/streaming-playlists/hls/ba868099-cccb-4f43-9350-ee9c3de2240b/9856fbd8-8da5-477d-abf7-95cbad223a3a-master.m3u8https://video.igem.org/videos/embed/p2URfgTwaa6SpSZM9okDEB1190762021-07-27T16:48:15.987ZChytridAmphibianYES2021 Project PromotionsNOhttps://video.igem.org/w/rxrkM6JunuXfAQXH75Tcjchttps://video.igem.org/lazy-static/thumbnails/05f6b27a-45af-413b-9d79-c8fd363284cf.jpgLund: Cure-li (2021) - Project Promotion [English]**Title:** Cure-li **Description:** Team Cure-li is the 2021 team from Lund, Sweden! We are a multidisciplinary team consisting of 17 members from both Europe and Asia. Our project is centered around trying to come up with a probiotic, preventative medicine for neurodegenerative diseases such as dementia, Alzheimer’s and Parkinson’s disease. This promotion video should give you more insight in why we chose this project and what we hope to achieve. [Wiki](https://2021.igem.org/Team:Lund)https://static.igem.org/peertube/streaming-playlists/hls/ced823eb-7012-447b-b6ec-24e98bf8f663/3ecef175-a25a-482e-b962-29ff570410cb-master.m3u8https://video.igem.org/videos/embed/rxrkM6JunuXfAQXH75Tcjc1180412021-07-27T16:49:15.484ZYES2021 Project PromotionsNOhttps://video.igem.org/w/7xeCJk7DPxMERSr9z6Ftsnhttps://video.igem.org/lazy-static/thumbnails/0f56939f-762f-4a28-ae94-cd5367afb7ec.jpgLZU-CHINA: Targeted inhibition of SARS-CoV-2 infection based on CRISPR-Cas13d sy... (2021) - Proj...**Title:** Targeted inhibition of SARS-CoV-2 infection based on CRISPR-Cas13d system **Description:** Currently, the world is still faced with the COVID-19 pandemic caused by SARS-CoV-2 which urgently requires flexible and targeted protection measures. CRISPR-Cas13d is an RNA-guided ribonuclease which targets ssRNA. Through bioinformatics screening of crRNA pool for ACE2 conserved sequence, the lentivirus /CRISPR-Cas13d system was constructed which is designed to knock down ACE2 on cell surface. Thus, entry of the pseudovirus into cells was inhibited. [Wiki](https://2021.igem.org/Team:LZU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/34f34a66-e915-469c-a1ef-794b4a30644d/daa93d00-2b6c-4e94-bf2d-e9ada07ef4bf-master.m3u8https://video.igem.org/videos/embed/7xeCJk7DPxMERSr9z6Ftsn1190392021-07-27T16:49:47.976ZSARS-CoV-2CRISPR_Cas13dYES2021 Project PromotionsNOhttps://video.igem.org/w/ihwMoyxfUSQXyM8dB2wVeUhttps://video.igem.org/lazy-static/thumbnails/bdd55bd8-9006-4278-be98-f2d859f28a19.jpgLZU-HS-CHINA: SerV01 (2021) - Project Promotion [English]**Warning:** This video contains wrong or mismatched captions. **Title:** SerV01 **Description:** Our video will briefly introduce an alternating method to produce nanoselenium-- use the enzyme called “SerV01” to produce nanoselenium (SeNPs)--in a less toxic, but more efficient mathod. [Wiki](https://2021.igem.org/Team:LZU-HS-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/8bfa3a5c-5bf8-414d-8937-b956b4fb6bba/301d111e-7686-4832-b8c4-f4511d2121dc-master.m3u8https://video.igem.org/videos/embed/ihwMoyxfUSQXyM8dB2wVeU1200282021-07-27T16:49:49.160ZYES2021 Project PromotionsNOhttps://video.igem.org/w/bSAibfn1ZRi8EKoJKC2on5https://video.igem.org/lazy-static/thumbnails/9ef61b24-73f5-4b64-b59d-a27b3ed90f33.jpgMADRID_UCM: 4C_Fuels (Cyanobacterial Cyclic Carbon Capture for Biofuel Production) (2021) - Proje...**Title:** 4C_Fuels (Cyanobacterial Cyclic Carbon Capture for Biofuel Production) **Description:** 4C_Fuels aims to accelerate the transition to a circular bioeconomy. To achieve this goal, our project works on the development of a photosynthetical production platform for chemical industry, replacing current petroleum derived materials using photosynthetical microorganisms as living catalysts. [Wiki](https://2021.igem.org/Team:MADRID_UCM)https://static.igem.org/peertube/streaming-playlists/hls/580bb5fa-7829-4400-9618-08abb25ae0a6/ec3b5d5d-a93a-46e5-a322-513298aad8fb-master.m3u8https://video.igem.org/videos/embed/bSAibfn1ZRi8EKoJKC2on51200452021-07-27T16:50:33.957ZSustainabilityCyanobacteriaYES2021 Project PromotionsNOhttps://video.igem.org/w/rLWMLAavAf2myNjJqUWHmthttps://video.igem.org/lazy-static/thumbnails/ee4be26c-564f-4990-8cfd-d3ccb04d7cca.jpgManchester: UriGel (2021) - Project Promotion [English]**Title:** UriGel **Description:** UriGel is a living catheter coating that aims to prevent the development of bacterial infections in the urinary system, most commonly caused by a medical device known as a catheter. We aim to use synthetic biology to provide a cheaper and sustainable alternative to current catheter coatings. [Wiki](https://2021.igem.org/Team:Manchester)https://static.igem.org/peertube/streaming-playlists/hls/d0baf516-5ffc-4aa2-9de3-b65ad5315b97/783b0a25-fadd-4624-978c-dbff75d61199-master.m3u8https://video.igem.org/videos/embed/rLWMLAavAf2myNjJqUWHmt12002052021-07-27T16:51:06.561ZYES2021 Project PromotionsNOhttps://video.igem.org/w/wQNLEAxZQGAqUcks1NJufzhttps://video.igem.org/lazy-static/thumbnails/977ebb8b-3af7-4c14-ad0a-24f45d74c2ba.jpgMarburg: OpenPlast (2021) - Project Promotion [English]**Title:** OpenPlast **Description:** In our project OpenPlast, we are developing cell-free systems from chloroplasts of various plants. Showing that they can be employed as prototyping platforms to characterize genetic constructs, these systems can drastically reduce testing times during the development of novel crops. [Wiki](https://2021.igem.org/Team:Marburg)https://static.igem.org/peertube/streaming-playlists/hls/f9c2af11-1013-4792-9239-a1f42152c3ad/966894a9-0c0a-4c87-a0ac-a87fa95c3b5a-master.m3u8https://video.igem.org/videos/embed/wQNLEAxZQGAqUcks1NJufz120011872021-07-27T16:51:35.978Zcell-freephototrophYES2021 Project PromotionsNOhttps://video.igem.org/w/sBfNEuD1Mvx9VKCa35yAzGhttps://video.igem.org/lazy-static/thumbnails/731d8f08-06b1-4fd7-8290-2b32627c07a0.jpgMcMaster: AIE See You Never! (2021) - Project Promotion [English]**Title:** AIE See You Never! **Description:** Adherent-invasive E. coli (AIEC) are linked to the pathogenesis of inflammatory bowel disease (IBD), a group of immune-related diseases of the human gastrointestinal tract. IBD affects millions of people and we propose the use of probiotic bacteria to express bacteriocins that selectively target pathogenic AIEC strains. Our project will pave the way for a new biological therapy that utilizes bacteriocin as narrow-spectrum antibiotics to treat multidrug-resistant bacterial infections. [Wiki](https://2021.igem.org/Team:McMaster)https://static.igem.org/peertube/streaming-playlists/hls/d779c2bf-907b-41bc-a6bb-0c7f726d322a/ee671318-5437-4d37-b2fa-562b6a980c57-master.m3u8https://video.igem.org/videos/embed/sBfNEuD1Mvx9VKCa35yAzG1200412021-07-27T16:51:37.013ZYES2021 Project PromotionsNOhttps://video.igem.org/w/8GFRiscutahZgaWSttxvrehttps://video.igem.org/lazy-static/thumbnails/df6d599a-f2aa-49ea-b8ad-4c46131e732a.jpgMEPhI: MISS (2021) - Project Promotion [English]**Title:** MISS **Description:** Humanity has always dreamed about conquering the cosmos. And while physics finds out how to send a human into space, biology needs to look for ways to protect them in this unfriendly place. In this video, we want to introduce you to our project MISS: the microbiome-induced spacesuit. Can you imagine the idea of protecting a person against radiation, using their own microbiome? Let’s watch! [Wiki](https://2021.igem.org/Team:MEPhI)https://static.igem.org/peertube/streaming-playlists/hls/3e5e47a5-3291-4b51-a8f0-f39210a0e8b3/fa4d1b5a-777a-4611-b560-7010ad9531fb-master.m3u8https://video.igem.org/videos/embed/8GFRiscutahZgaWSttxvre1200692021-07-27T16:52:19.014ZSpacemicrobiotaYES2021 Project PromotionsNOhttps://video.igem.org/w/t8ZohCPkzKNTqW1qJUsMrzhttps://video.igem.org/lazy-static/thumbnails/5a0bb436-1629-4e00-a7db-920088a1bbb9.jpgMetro_Shanghai: New weight-losing probiotics (2021) - Project Promotion [English]**Title:** New weight-losing probiotics **Description:** We will use genetic engineering to construct new probiotics which can regulate the intestinal environment and enhance the ability to digest fat for effectively alleviating or preventing relevant metabolic disorders or lesions. [Wiki](https://2021.igem.org/Team:Metro_Shanghai)https://static.igem.org/peertube/streaming-playlists/hls/dbc45083-f59c-4c70-bcea-50273cf718af/e92e0cb6-90f6-4d30-8d30-e035623b4ba4-master.m3u8https://video.igem.org/videos/embed/t8ZohCPkzKNTqW1qJUsMrz102062021-07-27T17:00:56.874ZYES2021 Project PromotionsNOhttps://video.igem.org/w/c2ibidKkMNvTLariBVBxSVhttps://video.igem.org/lazy-static/thumbnails/3ee41ed0-03e6-4d0b-9789-43848c658642.jpgMiamiU_OH: CROP - Creating RuBP Optimized Photosynthesis (2021) - Project Promotion [English]**Title:** CROP - Creating RuBP Optimized Photosynthesis **Description:** A major inefficiency of photosynthesis is in the regeneration of Ribulose 1,5-bisphosphate (RuBP) during the Calvin cycle. Through genetic engineering, our team will disrupt the typical pathway of the Calvin cycle and implement the enzyme transaldolase, allowing the cycle to be streamlined for a more continuous and robust regeneration of RuBP. This could vastly improve agricultural productivity by providing a mechanism to boost plant growth. [Wiki](https://2021.igem.org/Team:MiamiU_OH)https://static.igem.org/peertube/streaming-playlists/hls/5942dae5-3ea0-4a1a-a3e6-6d5c7ec3454d/6c4451d3-d4b8-4bb4-9ca5-ee13a7b54d17-master.m3u8https://video.igem.org/videos/embed/c2ibidKkMNvTLariBVBxSV12001752021-07-27T17:01:36.677ZYES2021 Project PromotionsNOhttps://video.igem.org/w/vhoxV6SDVFnipyJxjxSARvhttps://video.igem.org/lazy-static/thumbnails/d8989fcd-7c12-4c1f-ab60-9bc7221616e8.jpgMichigan: Investigating Encapsulins as a Novel Drug Delivery Platform (2021) - Project Promotion ...**Title:** Investigating Encapsulins as a Novel Drug Delivery Platform **Description:** Using alpha factor tagged encapsulins to deliver mNeon cargo to yeast cells via clathrin mediated endocytosis. [Wiki](https://2021.igem.org/Team:Michigan)https://static.igem.org/peertube/streaming-playlists/hls/ed22d18c-e3d2-45fc-9ae5-ccc1e2000cbf/c7d3c0ca-6458-4148-bf27-46eb949066ca-master.m3u8https://video.igem.org/videos/embed/vhoxV6SDVFnipyJxjxSARv12001092021-07-27T17:02:57.144ZBacterial nanocompartmentsdrug deliveryYES2021 Project PromotionsNOhttps://video.igem.org/w/2S5SEJi4PZfe5YN4GUVSgohttps://video.igem.org/lazy-static/thumbnails/443b183e-2d7e-4737-8842-7f5cf8e9779f.jpgMichiganState: Synterception (2021) - Project Promotion [English]**Title:** Synterception **Description:** Synterception is a tripartite biocontainment system designed to inhibit horizontal transfer of engineered genes in bacterial hosts. The engineered gene is put under a T7 promoter, and the corresponding polymerase is integrated into the host genome. A toxin-antitoxin system is used to induce lysis in recipient bacteria. Finally, CRISPR-Cas9 is used to cleave conjugative plasmids that enter the cell, preventing conjugation. Together, these systems should greatly inhibit horizontal gene transfer. [Wiki](https://2021.igem.org/Team:MichiganState)https://static.igem.org/peertube/streaming-playlists/hls/0f1754a2-f44d-4cf7-8c78-12e2c6abd0cc/aeced851-100d-4de3-bfc0-a20732e70c42-master.m3u8https://video.igem.org/videos/embed/2S5SEJi4PZfe5YN4GUVSgo1190362021-07-27T17:02:58.464ZUnited StatesYES2021 Project PromotionsNOhttps://video.igem.org/w/jwk6MAdqcGHfCVCPXqiRRUhttps://video.igem.org/lazy-static/thumbnails/371aa543-d032-49c2-a4e3-8689f1c5408e.jpgMines: Blood Bots and Blood Clots (2021) - Project Promotion [English]**Warning:** This video has no captions. **Title:** Blood Bots and Blood Clots **Description:** This project is using functionalized blood bots to make blood transfusions more available. Blood Bots, also known as microwheels, are conglomerations of magnetically driven beads that can be used as microblenders for blood clots. Genetically engineered E. Coli is used to express a recently discovered protien pair that can retype A type blood to the universal donor blood type O. [Wiki](https://2021.igem.org/Team:Mines)https://static.igem.org/peertube/streaming-playlists/hls/96009462-4765-497f-9753-4f4c59cc277a/2284d6f2-7a61-479e-8964-7078b3069ba6-master.m3u8https://video.igem.org/videos/embed/jwk6MAdqcGHfCVCPXqiRRU1040132021-07-27T17:02:59.504ZYES2021 Project PromotionsNOhttps://video.igem.org/w/3rCuHWwHVEWJon3uJDwUSVhttps://video.igem.org/lazy-static/thumbnails/d6cb9439-d729-467f-a5ba-f15cad454614.jpgMingdao: Desalmonator (2021) - Project Promotion [English]**Title:** Desalmonator **Description:** In modern days, more and more dietary manufacturers started to use inferior or maybe even harmful materials to produce our daily-life food. The same thing happens to egg manufacturers, leading to a common issue with eggs, the presence of salmonella. Salmonella causing consumers to experience severe food poisoning after ingestion. Luckily, Mingdao brings you Desalmonator a fast detection kit for Salmonella. |About us|: https://linkby.tw/igem.mingdao [Wiki](https://2021.igem.org/Team:Mingdao)https://static.igem.org/peertube/streaming-playlists/hls/13c65cd0-36dc-4368-b1dd-c9156d042419/2a69f915-7987-4686-8d22-fe611763c310-master.m3u8https://video.igem.org/videos/embed/3rCuHWwHVEWJon3uJDwUSV1200882021-07-27T17:03:00.667ZbacteriophagedetectionYES2021 Project PromotionsNOhttps://video.igem.org/w/41csH2QZXZnBUak5CywVoWhttps://video.igem.org/lazy-static/thumbnails/aa422590-3212-4732-8512-bf643fb6b4ce.jpgMIPT_MSU: Final destination for cancer: using viral sorting and targeting mechan... (2021) - Proj...**Title:** Final destination for cancer: using viral sorting and targeting mechanisms for RNA molecules delivery **Description:** The MIPT_MSU team presents a new way of cancer treatment based on vesicles with the syncytin fusion protein. Our unique system is non-toxic, targeted, and has low immunogenicity. So, as well as nearly everything can be delivered in our world, we deliver a cancer-free world to you! [Wiki](https://2021.igem.org/Team:MIPT_MSU)https://static.igem.org/peertube/streaming-playlists/hls/18527a8f-3278-423b-b63f-63d6b487d056/d17aa7c9-6ebb-404d-b748-c2380bbd46f5-master.m3u8https://video.igem.org/videos/embed/41csH2QZXZnBUak5CywVoW1020282021-07-27T17:03:33.534ZYES2021 Project PromotionsNOhttps://video.igem.org/w/89RT8t7TMMoSAYXBwdJQRehttps://video.igem.org/lazy-static/thumbnails/90481014-5859-454f-979e-393efd398d1f.jpgMissouri_Miners: Salmonella Sleuth (2021) - Project Promotion [English]**Title:** Salmonella Sleuth **Description:** Salmonella is dangerous predominantly due to its presence in many common foods such as Lettuce, Poultry, and Beef. Salmonella Sleuth is a biosensor designed to detect Salmonella contamination. Salmonella Sleuth uses the Autoinducer 2 biochemical pathway as the receptor and transducing element. As the concentration of Autoinducer 2 increases, it activates an inserted green fluorescence gene. The fluorescence can be correlated to Salmonella concentration using an in-house developed fluorometer. [Wiki](https://2021.igem.org/Team:Missouri_Miners)https://static.igem.org/peertube/streaming-playlists/hls/39eca94f-39c3-43a6-bda4-f1cfe95c6237/ef19d41a-5091-4ec7-a642-bea8d885e717-master.m3u8https://video.igem.org/videos/embed/89RT8t7TMMoSAYXBwdJQRe1170162021-07-27T17:05:01.146ZYES2021 Project PromotionsNOhttps://video.igem.org/w/t2VPZ9t92bj8BgVLAQeRZ5https://video.igem.org/lazy-static/thumbnails/5dda3694-8c56-4ffc-b1d8-d885f0f2f8af.jpgMIT: B. syruptilis (2021) - Project Promotion [English]**Title:** B. syruptilis **Description:** This year, MIT iGEM is creating a Bacillus subtilis probiotic that goes into the GI tract of patients with Maple Syrup Urine Disease (MSUD) and breaks down branched chain amino acids for them. In a “The Office” style skit, the team demonstrates how branched chain amino acids that are processed in the “B. Syruptilis” office will be broken down correctly instead of wreaking havoc in the “MSUD patient” cells. [Wiki](https://2021.igem.org/Team:MIT)https://static.igem.org/peertube/streaming-playlists/hls/daeba8ec-b594-435e-926e-1770a7e6df9a/bb71469c-9c38-4330-840c-f126b0cd79b9-master.m3u8https://video.igem.org/videos/embed/t2VPZ9t92bj8BgVLAQeRZ51200942021-07-27T17:05:02.504ZMSUDprobioticYES2021 Project PromotionsNOhttps://video.igem.org/w/eALHEW4txQ2tGAzSMNoqjthttps://video.igem.org/lazy-static/thumbnails/0afdc8e9-62a7-451c-be7f-def5fb97fc03.jpgMIT_MAHE: Cell-tinel (2021) - Project Promotion [English]**Title:** Cell-tinel **Description:** Cell-tinel aims to develop a safe, sustainable method to control pests. We want to make a modular process that allows a pest-crop pair to be identified and solved using an endophytic delivery system with bacteria indigenous to the pest and crop and a way of eliminating the pest. The proof of concept uses rice and stem borers as our pest-crop pair. The Cry1ab toxin kills the stem borers, and Bacillus subtilis is the chassis. Additional benefits like drought resistance are also being imparted. [Wiki](https://2021.igem.org/Team:MIT_MAHE)https://static.igem.org/peertube/streaming-playlists/hls/6e21a645-5e71-41a0-b115-c38299e93dff/d277b975-478e-4efe-8513-03f5ff3a4491-master.m3u8https://video.igem.org/videos/embed/eALHEW4txQ2tGAzSMNoqjt1200402021-07-27T17:05:03.602Zsustainability YES2021 Project PromotionsNOhttps://video.igem.org/w/gBKL1c2BCWbmCKPdfSpC4ahttps://video.igem.org/lazy-static/thumbnails/37bd9f1e-8101-446b-a8fc-b393715ce65d.jpgMoscow: miPression (2021) - Project Promotion [English]**Title:** miPression **Description:** We are iGEM Moscow 2021 team, and the main goal of our project - miPression - is to design a test system that can detect depression and distinguish it from other psychiatric diseases. We are going to use a blood test, based on CRISPR-Cas technology. Our system will help to reduce the burden of misdiagnosed and undiagnosed cases of depression. In the long term, our development may help to reduce public stigmatization and break down false stereotypes about mental disorders. [Wiki](https://2021.igem.org/Team:Moscow)https://static.igem.org/peertube/streaming-playlists/hls/7e77143f-6d6f-41bb-85c2-8a23d058dabf/a8ed2dc8-8a12-47b7-b8e1-0d2f7795b46b-master.m3u8https://video.igem.org/videos/embed/gBKL1c2BCWbmCKPdfSpC4a1200472021-07-27T17:10:06.427Zdepressioncrispr/casYES2021 Project PromotionsNOhttps://video.igem.org/w/7dNzCayWp42BekLy5VySTFhttps://video.igem.org/lazy-static/thumbnails/a0369180-54c5-43f8-ae16-912340c6b4d0.jpgMoscow_City: Mobile test system for the rapid diagnosis of Equine Herpesviruses (2021) - Project ...**Title:** Mobile test system for the rapid diagnosis of Equine Herpesviruses **Description:** Equine herpesviruses are the most dangerous viruses for horses, but there are problems with EHV diagnosis. Therefore we decided to create our test system for rapid diagnosis of EHV. The method is based on the property of beta-lactamase subunits to combine into a functional protein when the halves physically approach. Two fusion proteins consisting of a Cas13 and two beta-lactamase subunits with gRNA make the target nucleic acid detection possible. [Wiki](https://2021.igem.org/Team:Moscow_City)https://static.igem.org/peertube/streaming-playlists/hls/32607685-3245-4bae-bd51-b21065c06b8d/49fc122d-01e7-44a1-8677-70e80cf308af-master.m3u8https://video.igem.org/videos/embed/7dNzCayWp42BekLy5VySTF1190212021-07-27T17:10:07.941ZvirusHORSEYES2021 Project PromotionsNOhttps://video.igem.org/w/opE6beFvmj8ABtWjQbKHMchttps://video.igem.org/lazy-static/thumbnails/482d1ee3-9702-466f-b844-e9016242f3ef.jpgMSP-Maastricht: METHAGONE - Harnessing the powers of seaweed to create greener cows (2021) - Proj...**Title:** METHAGONE - Harnessing the powers of seaweed to create greener cows **Description:** Climate change, caused by greenhouse gases, is one of the most pressing issues of the 21st century. Cattle is responsible for ~44% of methane emissions. We have an alternative that solves this issue. MSP-Maastricht chooses to say “moo to methane” by creating a microorganism that can inhibit methanogenesis. The micro-organisms we design will enable the addition of bromoform to the cow’s feed on a worldwide scale, actively contributing to a greener world. [Wiki](https://2021.igem.org/Team:MSP-Maastricht)https://static.igem.org/peertube/streaming-playlists/hls/b576a16c-a292-49a1-893b-8ba4f9368ad9/ca7f998d-ec40-4263-a0a5-c18a417794dd-master.m3u8https://video.igem.org/videos/embed/opE6beFvmj8ABtWjQbKHMc11901392021-07-27T17:10:09.350ZclimatechangecowsYES2021 Project PromotionsNOhttps://video.igem.org/w/qURhVXSdPC434yj1pQuenXhttps://video.igem.org/lazy-static/thumbnails/454c84d8-b3ea-4d79-baf1-90942b8d910e.jpgMTU-CORK: BioR.E.M (2021) - Project Promotion [English]**Title:** BioR.E.M **Description:** By engineering E. coli with Perchlorate Reduction Genomic Island, from proteobacteria, we aim to bioremediate the soil on Mars. [Wiki](https://2021.igem.org/Team:MTU-CORK)https://static.igem.org/peertube/streaming-playlists/hls/c9bc618f-69aa-48db-937b-4ccdde383b8d/ea90e2f7-6dbd-4c2d-a72a-d67560256908-master.m3u8https://video.igem.org/videos/embed/qURhVXSdPC434yj1pQuenX1200292021-07-27T17:11:16.135ZYES2021 Project PromotionsNOhttps://video.igem.org/w/4gc8T6KAqZPNhvYYqCbJrohttps://video.igem.org/lazy-static/thumbnails/4939a170-66a3-4b1a-af2d-4b20dd073a1f.jpgNanjing-China: Polyp Micro (2021) - Project Promotion [English]**Title:** Polyp Micro **Description:** Intestinal diseases resulted from imbalance of gut microbiome is a universal problem. Our project aims to enhance the yield of polyphosphate(polyp) in bacteria and develop a novel drug with polyp, which can help to keep the homeostasis of gut microbiome. [Wiki](https://2021.igem.org/Team:Nanjing-China)https://static.igem.org/peertube/streaming-playlists/hls/1a6a6f6d-2d02-4666-9c4c-7ea3a1773778/8f011a27-bfd9-446b-9016-5955fa056e22-master.m3u8https://video.igem.org/videos/embed/4gc8T6KAqZPNhvYYqCbJro1200242021-07-27T17:12:19.144ZYES2021 Project PromotionsNOhttps://video.igem.org/w/9CocBamiK4uyKgnjQKUBcehttps://video.igem.org/lazy-static/thumbnails/27aab478-7fef-4a9a-81c8-49116b299bda.jpgNanjing_high_school: Explore lead compounds against microglial inflammation (2021) - Project Prom...**Title:** Explore lead compounds against microglial inflammation **Description:** M1-type, one of the activated Microglia forms will cause excessive inflammatory responses, even many diseases. It was found that PPM1A can inhibit M1-type in vivo. So we aim to produce purified PPM1A through genetically engineered E. coli and further explore new compounds for easing those diseases. [Wiki](https://2021.igem.org/Team:Nanjing_high_school)https://static.igem.org/peertube/streaming-playlists/hls/45dd90f9-2e09-4d91-bfb5-2cd2837f8847/b5f7b772-d78a-49a0-adb9-9eb4706ffde3-master.m3u8https://video.igem.org/videos/embed/9CocBamiK4uyKgnjQKUBce104072021-07-27T17:12:40.925ZYES2021 Project PromotionsNOhttps://video.igem.org/w/qD2KdxPn4XMg4WcWKHp6njhttps://video.igem.org/lazy-static/thumbnails/a4d0c9d2-8238-45db-bf92-90fd2cf0cfa7.jpgNanjing_NFLS: Antibiotics Killer (2021) - Project Promotion [English]**Title:** Antibiotics Killer **Description:** Our project aims to degrade antibiotics with microbial fuel cells (MFCs). By over-expressing rhl genes, we can accelerate the formation of biofilm and, thus, improve the efficiency of MFCs. Therefore, the degradation effect is greatly enhanced, which can be used to reduce antibiotic pollution. [Wiki](https://2021.igem.org/Team:Nanjing_NFLS)https://static.igem.org/peertube/streaming-playlists/hls/c786ec3c-13e4-42e0-ae41-e0ddcc92f690/89176c56-c969-45c1-9240-002f75b18b52-master.m3u8https://video.igem.org/videos/embed/qD2KdxPn4XMg4WcWKHp6nj1200392021-07-27T17:13:13.267ZHigh schoolchinaYES2021 Project PromotionsNOhttps://video.igem.org/w/hQytQR1qNNhXupc6R6KvC5https://video.igem.org/lazy-static/thumbnails/770e97cd-3d20-4598-916e-d0d13e9ac03d.jpgNantes: UNTITLED (2021) - Project Promotion [English]**Title:** UNTITLED **Description:** Our project responds to a local issue affecting other countries in the world: green tides. They represent an economical and health issue for municipalities in French Brittany. Our video will help you understand this phenomenon and the solution we provide. Small changes lead to big innovations [Wiki](https://2021.igem.org/Team:Nantes)https://static.igem.org/peertube/streaming-playlists/hls/8859efa1-3aa1-4cf5-b0e1-35e723936ca8/3493e6ac-a023-4421-8126-94747ad936cb-master.m3u8https://video.igem.org/videos/embed/hQytQR1qNNhXupc6R6KvC51190162021-07-27T17:13:14.786Z#greenalgaeYES2021 Project PromotionsNOhttps://video.igem.org/w/89iJH94eT5hhAZMtindV7Rhttps://video.igem.org/lazy-static/thumbnails/8aae2658-c88a-4121-8406-82a083273473.jpgNantes: UNTITLED (2021) - Project Promotion [French]**Title:** UNTITLED **Description:** Our project responds to a local issue affecting other countries in the world: green tides. They represent an economical and health issue for municipalities in French Brittany. Our video will help you understand this phenomenon and the solution we provide. Small changes lead to big innovations [Wiki](https://2021.igem.org/Team:Nantes)https://static.igem.org/peertube/streaming-playlists/hls/39d8d9e8-89e4-4ac7-9347-d72c9a27e411/01749ff4-c32b-4afa-ac3f-1d0887a2c4c1-master.m3u8https://video.igem.org/videos/embed/89iJH94eT5hhAZMtindV7R120022021-07-27T17:13:16.273Z#greenalgaeYES2021 Project PromotionsNOhttps://video.igem.org/w/8SFTfHvResh9ZR3va2AsiRhttps://video.igem.org/lazy-static/thumbnails/e29ca0e6-3344-49b1-9db0-a938f025d689.jpgNAU-CHINA: High-efficiency selenium recovery bioreactor:engineered E.coli (2021) - Project Promot...**Title:** High-efficiency selenium recovery bioreactor:engineered E.coli **Description:** In order to solve the Selenium soil pollution near the mining areas, NAU-CHINA 2021 intends to construct a genetic circuit which mainly encompasses two proteins-CsrF and SefA, in Escherichia coli, to transfer excessive Se oxyanions into selenium nanoparticles wrapped in organic outer layers. [Wiki](https://2021.igem.org/Team:NAU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/3fc3bd02-2592-4c9c-9ae8-1c2caa03e7f3/15639394-9a4e-4857-adde-caa7094657de-master.m3u8https://video.igem.org/videos/embed/8SFTfHvResh9ZR3va2AsiR1200422021-07-27T17:13:46.147ZYES2021 Project PromotionsNOhttps://video.igem.org/w/2B9EWiYxrdNjWYSjM3GGP2https://video.igem.org/lazy-static/thumbnails/ce84338d-a2e6-4de5-9569-ca77431b66cd.jpgNAWI-Graz: phos4us (2021) - Project Promotion [English]**Title:** phos4us **Description:** This year NAWI Graz is represented by our project “phos4us”. Phosphate is essential for plant-growth and is therefore an important part of fertilizers. We want to use microorganisms to detect phosphate concentrations in soil and increase its availability for plants. As a result the amount of phosphate that needs to be added to fertilizers artificially would decrease, in addition to less of it leeching into the groundwater. [Wiki](https://2021.igem.org/Team:NAWI-Graz)https://static.igem.org/peertube/streaming-playlists/hls/0d0183b6-32a6-4ec8-8a1b-dac94ecebf47/56ed8b7b-80ca-496c-b7a2-f63ccd2b6272-master.m3u8https://video.igem.org/videos/embed/2B9EWiYxrdNjWYSjM3GGP21200132021-07-27T17:13:47.639ZYES2021 Project PromotionsNOhttps://video.igem.org/w/qvZRWTrqpbrU5HfXPDfHJehttps://video.igem.org/lazy-static/thumbnails/135f64a8-e7e0-4fa1-a050-415a0fa297ef.jpgNAWI-Graz: phos4us (2021) - Project Promotion [German]**Title:** phos4us **Description:** This year NAWI Graz is represented by our project “phos4us”. Phosphate is essential for plant-growth and is therefore an important part of fertilizers. We want to use microorganisms to detect phosphate concentrations in soil and increase its availability for plants. As a result the amount of phosphate that needs to be added to fertilizers artificially would decrease, in addition to less of it leeching into the groundwater. [Wiki](https://2021.igem.org/Team:NAWI-Graz)https://static.igem.org/peertube/streaming-playlists/hls/c68b8e2c-7e13-4248-bab0-953c7cb4a1f5/01244388-31c4-4424-833c-ed2c686ff737-master.m3u8https://video.igem.org/videos/embed/qvZRWTrqpbrU5HfXPDfHJe1200172021-07-27T17:13:49.137ZYES2021 Project PromotionsNOhttps://video.igem.org/w/a76Qus5gfUMUwVQVYZJDEPhttps://video.igem.org/lazy-static/thumbnails/73ec60ac-30a9-4d09-a2fb-c9aaf2b03f86.jpgNCHU_Taichung: Let straws feed rice (2021) - Project Promotion [English]**Warning:** This video contains wrong or mismatched captions. **Title:** Let straws feed rice **Description:** Every kilogram of milled rice accompanied by almost equal amount of straw. So, is it possible to recycle those straws into a part of circular agriculture? In our project, we designed two genetically modified bacterial stains to solve the question. One has a cellulosome system for releasing sugar from straws and change the straws into fermentation broth. Another modified bacterial strain could synthesis pyrroloquinoline quinone (PQQ) for promoting plant growth. [Wiki](https://2021.igem.org/Team:NCHU_Taichung)https://static.igem.org/peertube/streaming-playlists/hls/49bc4ea1-570a-42ce-806a-0a9d7307d95f/83b0e7b0-4790-4120-a243-20ecc0d55362-master.m3u8https://video.igem.org/videos/embed/a76Qus5gfUMUwVQVYZJDEP11901292021-07-27T17:14:29.660ZYES2021 Project PromotionsNOhttps://video.igem.org/w/a8MCJDN5auVFfRwfYJpG2Nhttps://video.igem.org/lazy-static/thumbnails/c7a5ac42-1aa3-44aa-ad22-d8101caee4a9.jpgNCKU_Tainan: MenTAUR (2021) - Project Promotion [English]**Title:** MenTAUR **Description:** NCKU Tainan 2021 is on the food and nutrition track this year, targeting chronic stress-induced depression by designing an E.coli to autoregulate taurine production. To increase supplement adherence and system protection, we have chosen Taiwan's signature food - Bubble tea. We call it - MenTAUR. [Wiki](https://2021.igem.org/Team:NCKU_Tainan)https://static.igem.org/peertube/streaming-playlists/hls/49f893af-3945-4602-855f-321f59c2dac0/1cbc8c3e-a54f-4b4d-9493-561710340753-master.m3u8https://video.igem.org/videos/embed/a8MCJDN5auVFfRwfYJpG2N1200912021-07-27T17:15:05.367ZMenTAURYES2021 Project PromotionsNOhttps://video.igem.org/w/k96ZtMNAPc3tZdMfo3u49Vhttps://video.igem.org/lazy-static/thumbnails/0d6824a4-239c-4b36-844c-c69ae79798df.jpgNCTU_Formosa: DenTeeth (2021) - Project Promotion [English]**Title:** DenTeeth **Description:** Do you know that more than 10% of people in the world have some oral problems? It can lead to painful, tooth loose and even many chronic diseases. What a serious problem! This year, we NCTU_Formosa plan to solve it. Thinking it's expedient to focus on dogs' oral health first, we develop a special dental bone called DenTeeth. We put some transformed probiotic E.coli into it which can sterilize and repair tooth tissues. Our team will also keep researching to apply such a system to human beings. [Wiki](https://2021.igem.org/Team:NCTU_Formosa)https://static.igem.org/peertube/streaming-playlists/hls/9aff46dc-271b-4beb-919d-e651efff6db1/af4901bc-7aa7-45c0-8c0b-adebe7e2f14a-master.m3u8https://video.igem.org/videos/embed/k96ZtMNAPc3tZdMfo3u49V1200492021-07-27T17:15:50.282ZYES2021 Project PromotionsNOhttps://video.igem.org/w/sCZLayN1tKnhBqDfTupE7Lhttps://video.igem.org/lazy-static/thumbnails/085899e4-2d92-48ab-8079-2c35dc491e4e.jpgNDNF_China: Hidro (2021) - Project Promotion [English]**Title:** Hidro **Description:** Potential hazards unleashed by the escape of engineered organisms into the wild have long been haunting minds of many. However with Hidro--- hydrogel systems that work in unison with bacterial strains, risks as such may be reduced. Protected within the hydrogel shell,the strains are also able to carry out their “programmed”tasks efficiently and stably. Thus reaching our aim of aiding synbio to transcend laboratory restrictions and say hi to the world. [Wiki](https://2021.igem.org/Team:NDNF_China)https://static.igem.org/peertube/streaming-playlists/hls/d7b7fa47-0f11-437a-bcb2-30bcf3d8a518/7f378866-ee82-40b3-8215-47aefe9ea2b9-master.m3u8https://video.igem.org/videos/embed/sCZLayN1tKnhBqDfTupE7L12003012021-07-27T17:15:51.728ZYES2021 Project PromotionsNOhttps://video.igem.org/w/jJtWhWFEPPstVseJF69cTChttps://video.igem.org/lazy-static/thumbnails/4a60feea-490a-4299-b1bf-0c73b974896e.jpgNDSU: Root defense (2021) - Project Promotion [English]**Title:** Root defense **Description:** Fungal Disease is a major issue in the agricultural sector. This issue costs more than 60 billion dollars worth of damage to food yields per year, with effects that ripple into both personal and financial wellbeing across the world. Our team is investigating a novel way to induce the natural plant symbiotes that reside in root systems to defend against these diseases at their main point of entry. [Wiki](https://2021.igem.org/Team:NDSU)https://static.igem.org/peertube/streaming-playlists/hls/97b2f34f-b985-459e-91e7-022554e7312e/54d257d2-c6ce-45f6-8f2f-deaa5b5919e3-master.m3u8https://video.igem.org/videos/embed/jJtWhWFEPPstVseJF69cTC120092021-07-27T17:18:05.291ZYES2021 Project PromotionsNOhttps://video.igem.org/w/4WNTQJUHEP6a1gXkYBsZ4shttps://video.igem.org/lazy-static/thumbnails/444046b4-4705-4c0c-b55a-7c58f4eb4136.jpgNEFU_China: Visible Diagnosis Platform by G-quadruplex (2021) - Project Promotion [English]**Title:** Visible Diagnosis Platform by G-quadruplex **Description:** We have noticed that for some developing countries and underdeveloped regions, there are often some difficulties to achieve timely and rapid nucleic acid detection. So we designed VDPG which can perform high-efficiency nucleic acid detection under non-laboratory conditions. [Wiki](https://2021.igem.org/Team:NEFU_China)https://static.igem.org/peertube/streaming-playlists/hls/1ff27a98-8fa9-42f8-842b-7412110f1d4c/623f5716-bd43-4431-8664-d8db81be5695-master.m3u8https://video.igem.org/videos/embed/4WNTQJUHEP6a1gXkYBsZ4s11501852021-07-27T17:18:32.373ZCOVID-19Nucleic acid detectionYES2021 Project PromotionsNOhttps://video.igem.org/w/9Vmg11qcBtWQNirCAq46BUhttps://video.igem.org/lazy-static/thumbnails/a8a22c30-0cd1-4d63-912e-53576099447d.jpgNEU_CHINA: Multivirus Detector (2021) - Project Promotion [English]**Warning:** This video contains wrong or mismatched captions. **Title:** Multivirus Detector **Description:** Our project is aimed to construct engineering bacteria based on E.coli for detection of MERS-CoV, HCoV-229E and SARS-CoV-2. We used PmrCAB system to detect the spike protein of coronavirus. The LuxI / LuxR based quorum sensing system was used to improve the sensitivity. [Wiki](https://2021.igem.org/Team:NEU_CHINA)https://static.igem.org/peertube/streaming-playlists/hls/483c038f-97fb-4508-8168-6912c5c4b58e/d761fc26-4147-41c4-81a6-5901eb3578d6-master.m3u8https://video.igem.org/videos/embed/9Vmg11qcBtWQNirCAq46BU1200252021-07-27T17:19:08.299ZDIAGNOSTICSchinaYES2021 Project PromotionsNOhttps://video.igem.org/w/ivmpaZq6T8iNoAaYtw74fchttps://video.igem.org/lazy-static/thumbnails/30cf4e1d-7a04-445a-8088-22db8f98b48d.jpgNIT_Warangal: GossyProtect (2021) - Project Promotion [English]**Title:** GossyProtect **Description:** Hey! We are Team NITW from India. Each year, India produces an average of 5,770 thousand metric tonnes of cotton making it the world's largest producer. Our project focuses on finding the solution to eliminate gossypol toxicity of cotton seed. We are working on studying and engineering enzymes that can inactivate the toxicity of gossypol. This would make cottonseed a good source, with high nutritional value, safe for both humans and cattle consumption. We are thrilled to be a part of iGEM 2021! [Wiki](https://2021.igem.org/Team:NIT_Warangal)https://static.igem.org/peertube/streaming-playlists/hls/8dc47f8a-22dd-4c1d-ae7a-e736724ae1d3/59559620-54c8-42c7-a39d-14b19863c2cb-master.m3u8https://video.igem.org/videos/embed/ivmpaZq6T8iNoAaYtw74fc12001102021-07-27T17:19:09.785ZGossyProtectiGEM_NIT_WarangalYES2021 Project PromotionsNOhttps://video.igem.org/w/wHC2UUhKevLbbU7zfEz4SChttps://video.igem.org/lazy-static/thumbnails/aada626a-7d1b-4bbd-aa87-446db8f879d4.jpgNJMU-China: Stairway to Starlight (2021) - Project Promotion [English]**Title:** Stairway to Starlight **Description:** Autism is a neurodevelopmental disorder and is regarded as the fastest-growing developmental disability. The Stairway To Starlight Project of NJMU-China hopes to present an approach to preventing and treating autism with the aid of synthetic biology. [Wiki](https://2021.igem.org/Team:NJMU-China)https://static.igem.org/peertube/streaming-playlists/hls/f8c1dc48-118f-4073-9d6d-11bb8e3f6e6c/b51a1d06-fb0e-47f6-9609-34664728c305-master.m3u8https://video.igem.org/videos/embed/wHC2UUhKevLbbU7zfEz4SC1180322021-07-27T17:19:46.431ZNJMU-ChinaYES2021 Project PromotionsNOhttps://video.igem.org/w/hMu8pFLufMJa8c43KBPaqZhttps://video.igem.org/lazy-static/thumbnails/89296ff2-a5b8-421d-a098-5ec1c207e624.jpgNJTech_China: Saving Rose Plan (2021) - Project Promotion [English]**Title:** Saving Rose Plan **Description:** Design and Construction of Synthetic Microalgae-Yeast Consortia for Biosynthesis of Phenylethanol [Wiki](https://2021.igem.org/Team:NJTech_China)https://static.igem.org/peertube/streaming-playlists/hls/87ec05c5-2922-4f94-8841-b70b3cbc8555/b3596f21-dfc9-400b-a163-cf6f88dcbffa-master.m3u8https://video.igem.org/videos/embed/hMu8pFLufMJa8c43KBPaqZ1090112021-07-27T17:20:06.840Zchina manufacturingYES2021 Project PromotionsNOhttps://video.igem.org/w/sSH24uc7dcnchgMLWEaSdyhttps://video.igem.org/lazy-static/thumbnails/dea4ed76-8501-403b-8d16-dbc97524c609.jpgNJU-China: How many do you know about asthma? (2021) - Project Promotion [English]**Title:** How many do you know about asthma? **Description:** Over 300 million people worldwide suffer from asthma, and the number is increasing. The following are the story of them and iGEM 2021 Team NJU-China Can Help! [Wiki](https://2021.igem.org/Team:NJU-China)https://static.igem.org/peertube/streaming-playlists/hls/d9a21273-46c6-4e73-b9b8-2ff746a27de8/e6c55184-4dda-4aad-9f87-4e6eb060c23e-master.m3u8https://video.igem.org/videos/embed/sSH24uc7dcnchgMLWEaSdy1200362021-07-27T17:20:07.872ZYES2021 Project PromotionsNOhttps://video.igem.org/w/hCFRGMoWiS95iUq8yae1bGhttps://video.igem.org/lazy-static/thumbnails/7271a9f1-8b14-4893-8cdf-7502c252fd38.jpgNMU_China: CAR-MERTK (2021) - Project Promotion [English]**Warning:** This video contains wrong or mismatched captions. **Title:** CAR-MERTK **Description:** COVID-19 remains a global public health crisis. Not only SARS-CoV-2 but also severe inflammatory response in the patient's body remains to be tackled. Targeted at this problem, we designed CAR-MERTK that can induce macrophages to engulf the virus without upregulating the inflammatory response. [Wiki](https://2021.igem.org/Team:NMU_China)https://static.igem.org/peertube/streaming-playlists/hls/86b18e97-7468-423b-b45d-5935485d65c4/7aa14647-0bfe-45ba-8dbc-9577edaa0359-master.m3u8https://video.igem.org/videos/embed/hCFRGMoWiS95iUq8yae1bG1200502021-07-27T17:20:49.986ZCOVID-19CARYES2021 Project PromotionsNOhttps://video.igem.org/w/aVdEmCepDAuXLTsLJwhGXfhttps://video.igem.org/lazy-static/thumbnails/474a4474-9c28-4a2b-b2ea-979b4f17c204.jpgNNU-China: Improving the antimicrobial peptides production of E. coli (2021) - Project Promotion ...**Title:** Improving the antimicrobial peptides production of E. coli **Description:** In order to improve the production of antimicrobial peptides, the strain library of E. coli BL21 (DE3) is constructed using CRISPR. The most suitable expression host could be screened in only three days. We aim to protect the human health and environment by reducing the abuse of antibiotics. [Wiki](https://2021.igem.org/Team:NNU-China)https://static.igem.org/peertube/streaming-playlists/hls/50507876-50e6-47d0-b93c-c4f0ac04dbc4/0723ac01-614c-4252-a73f-305d6942d1eb-master.m3u8https://video.igem.org/videos/embed/aVdEmCepDAuXLTsLJwhGXf1200332021-07-27T17:21:17.729ZYES2021 Project PromotionsNOhttps://video.igem.org/w/1bced3By3kA2oiJQatc6y1https://video.igem.org/lazy-static/thumbnails/90240a44-d6a3-4c7b-bb09-0bb608ec67a0.jpgNOFLS_YZ: Biosensor for diagnosing IBD based on AND gate (2021) - Project Promotion [English]**Title:** Biosensor for diagnosing IBD based on AND gate **Description:** Targeting on thiosulfate ions and nitrate ions as the intestinal markers of IBD, we will design two plasmids to construct a biosenser based on AND gate in order for better higher diagnosis of IBD with higher accuracy. [Wiki](https://2021.igem.org/Team:NOFLS_YZ)https://static.igem.org/peertube/streaming-playlists/hls/016c5b66-2564-4d47-8bc8-d836303c61fc/89211baa-5fff-4fb9-9569-ef77866eefb4-master.m3u8https://video.igem.org/videos/embed/1bced3By3kA2oiJQatc6y1116072021-07-27T17:23:45.798ZYES2021 Project PromotionsNOhttps://video.igem.org/w/4JwmuGWHNngVybPaXeHre7https://video.igem.org/lazy-static/thumbnails/7fbb380c-e9bb-4dbd-a214-8eba0a904300.jpgNOLA: UNTITLED (2021) - Project Promotion [English]**Title:** UNTITLED **Description:** Our project is centered around the Francisella novicida CRISPR/Cas12a system. We are introducing nucleotide substitutions to the crRNA scaffold and evaluating how these mutations affect Cas12a-DNA interactions. A variety of functional crRNA scaffolds that can still successfully bind to FnCas12a will enable stable multiplexing of synthetic crRNA arrays due to the reduced frequency of homologous recombination. This will aid researchers who use this tool by improving the system's efficiency. [Wiki](https://2021.igem.org/Team:NOLA)https://static.igem.org/peertube/streaming-playlists/hls/1e3b5c38-e657-4cc3-8bb0-0c231da376d4/ecf33f53-f873-4159-9bf6-df6a82c61901-master.m3u8https://video.igem.org/videos/embed/4JwmuGWHNngVybPaXeHre7120042021-07-27T17:23:46.752ZYES2021 Project PromotionsNOhttps://video.igem.org/w/e8AhUtHsx6v7xvL5pZKtSjhttps://video.igem.org/lazy-static/thumbnails/59b09d40-8528-446f-b294-eee7c3fcc7b7.jpgNorth_Texas: UNTITLED (2021) - Project Promotion [English]**Title:** UNTITLED **Description:** The North_Texas team, under the mentorship of Dr. Calvin Henard, plans to engineer the methanotroph Methylococcus capsulatus in order to convert anaerobic digestion-derived biogas (CH4 and CO2) to the Nylon-4 precursor gamma-aminobutyric acid (GABA). The video introduces the aforementioned problem and showcases the process the UNT iGEM team is following in order to achieve their goal. Furthermore, the video also illustrates the project’s societal benefits and importance in the future. [Wiki](https://2021.igem.org/Team:North_Texas)https://static.igem.org/peertube/streaming-playlists/hls/6a56244f-3dae-4270-9f92-930883d1c6da/2fe1c953-f349-4618-b20b-a2f2489c1fa8-master.m3u8https://video.igem.org/videos/embed/e8AhUtHsx6v7xvL5pZKtSj1160172021-07-27T17:23:48.137ZYES2021 Project PromotionsNOhttps://video.igem.org/w/cmwUL7jjCqRsb4gqYh19Buhttps://video.igem.org/lazy-static/thumbnails/5b50bf34-8938-40bf-b22e-792020c6b7cd.jpgNPU-CHINA: A multifunctional aflatoxin degradation system based on Bacillus subt... (2021) - Proj...**Title:** A multifunctional aflatoxin degradation system based on Bacillus subtilis **Description:** Aflatoxin is listed as class one carcinogens by WHO. Our project is dedicated to construct an aflatoxin-degradation selenium-rich feed additive with Bacillus subtilis as the carrier. Both aflatoxin degradation and bioselenium enrichment can be realized in Bacillus subtilis. At the same time, auto lysis program of Bacillus subtilis promise us to get aflatoxin degrading protein and organic selenium nanoparticles that we need. [Wiki](https://2021.igem.org/Team:NPU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/5bf2730c-fdd8-40a3-854c-2103fd8a07aa/f575c8b2-4a0e-4dc3-a93c-c0af36a4239c-master.m3u8https://video.igem.org/videos/embed/cmwUL7jjCqRsb4gqYh19Bu980132021-07-27T17:23:48.986ZAflatoxinBacillus subtilisYES2021 Project PromotionsNOhttps://video.igem.org/w/9djFyvb4GTCgfsWbpASBvnhttps://video.igem.org/lazy-static/thumbnails/f1cdb65f-1652-4f1f-b095-c58735d4c424.jpgNTHU_Taiwan: CONPINE (2021) - Project Promotion [English]**Title:** CONPINE **Description:** Pine wilt disease is caused by specific nematodes – B. xylophilus. We aim to use the RNAi system to make pine trees resistant to nematodes. Utilizing this method, plants will hold immunity and won’t suffer from pine wilt disease anymore. [Wiki](https://2021.igem.org/Team:NTHU_Taiwan)https://static.igem.org/peertube/streaming-playlists/hls/42818c39-e193-4650-8b58-002632de2363/041a82ae-3edc-4ef4-8d6d-121bd3a851ae-master.m3u8https://video.igem.org/videos/embed/9djFyvb4GTCgfsWbpASBvn1210272021-07-27T17:23:50.381ZenvironmentasiaYES2021 Project PromotionsNOhttps://video.igem.org/w/ghz9zBNzvKSQW9gVUK4Ghghttps://video.igem.org/lazy-static/thumbnails/a36a8291-1db1-43ce-b649-aad0101d4e94.jpgNTNU-Trondheim: SulFind (2021) - Project Promotion [English]**Title:** SulFind **Description:** We are SulFind, the iGEM team from NTNU Trondheim in Norway. Every year, fish are lost due to hydrogen sulfide toxicity in recirculating aquaculture systems. With our iGEM project, we are using synthetic biology to tackle this problem, creating a more sustainable aquaculture industry. [Wiki](https://2021.igem.org/Team:NTNU-Trondheim)https://static.igem.org/peertube/streaming-playlists/hls/7bc96889-e347-40a3-8420-a809d7b342b7/29ae57b6-fe26-4e9e-a055-a8a035dc0edc-master.m3u8https://video.igem.org/videos/embed/ghz9zBNzvKSQW9gVUK4Ghg1200342021-07-27T17:24:53.856ZYES2021 Project PromotionsNOhttps://video.igem.org/w/cUD8mqFHfkwNETSJNhsW5phttps://video.igem.org/lazy-static/thumbnails/088dfdfb-f7e2-436c-b3b9-de1b598e5067.jpgNTU-Singapore: Rapid and Convenient DNA Detection (2021) - Project Promotion [English]**Title:** Rapid and Convenient DNA Detection **Description:** Early diagnosis of infectious diseases is vital in ensuring one's survival. Some countries may not have quick access to hospitals or expensive equipment. Our aim is to develop a diagnostic assay which amplifies the reaction using LAMP along with CRISPR, to detect DNA all within an hour. [Wiki](https://2021.igem.org/Team:NTU-Singapore)https://static.igem.org/peertube/streaming-playlists/hls/606e14db-d87a-43e4-85a7-216d65bf3ce7/50ef9ffb-78df-4ecf-b7e1-9750b5dfd882-master.m3u8https://video.igem.org/videos/embed/cUD8mqFHfkwNETSJNhsW5p1180392021-07-27T17:24:55.233ZCRISPRLAMPYES2021 Project PromotionsNOhttps://video.igem.org/w/jLU5r8d4YrUGV4AJV2UfAbhttps://video.igem.org/lazy-static/thumbnails/0306c6dc-865a-42e6-860f-81f9fa673503.jpgNTU-Singapore: Rapid and Convenient DNA Detection (2021) - Project Promotion [Chinese]**Title:** Rapid and Convenient DNA Detection **Description:** Early diagnosis of infectious diseases is vital in ensuring one's survival. Some countries may not have quick access to hospitals or expensive equipment. Our aim is to develop a diagnostic assay which amplifies the reaction using LAMP along with CRISPR, to detect DNA all within an hour. [Wiki](https://2021.igem.org/Team:NTU-Singapore)https://static.igem.org/peertube/streaming-playlists/hls/980950a4-02a7-44ec-a7f5-5a604d077786/4c98aa30-5523-4e7a-a39e-405639230ea1-master.m3u8https://video.igem.org/videos/embed/jLU5r8d4YrUGV4AJV2UfAb1180372021-07-27T17:26:40.109ZLAMPCRISPRYES2021 Project PromotionsNOhttps://video.igem.org/w/t7QU3C44xnwCtT5Ry4eJHchttps://video.igem.org/lazy-static/thumbnails/804cdc97-d777-4985-ba57-a682249282c4.jpgNTU-Singapore: Rapid and Convenient DNA Detection (2021) - Project Promotion [Malay (macrolanguage)]**Title:** Rapid and Convenient DNA Detection **Description:** Early diagnosis of infectious diseases is vital in ensuring one's survival. Some countries may not have quick access to hospitals or expensive equipment. Our aim is to develop a diagnostic assay which amplifies the reaction using LAMP along with CRISPR, to detect DNA all within an hour. [Wiki](https://2021.igem.org/Team:NTU-Singapore)https://static.igem.org/peertube/streaming-playlists/hls/db9b572a-6505-4961-9514-ea29745b3db5/48948c77-6f6d-41f8-88ef-f3eb205e4a10-master.m3u8https://video.igem.org/videos/embed/t7QU3C44xnwCtT5Ry4eJHc118032021-07-27T17:27:05.516ZLAMPCRISPRYES2021 Project PromotionsNOhttps://video.igem.org/w/p7Hsg3Rg2Gz4tGB9mAN4Z7https://video.igem.org/lazy-static/thumbnails/0198611f-177c-4072-972a-88c4d89840e6.jpgNTU-Singapore: Rapid and Convenient DNA Detection (2021) - Project Promotion [Hindi]**Title:** Rapid and Convenient DNA Detection **Description:** Early diagnosis of infectious diseases is vital in ensuring one's survival. Some countries may not have quick access to hospitals or expensive equipment. Our aim is to develop a diagnostic assay which amplifies the reaction using LAMP along with CRISPR, to detect DNA all within an hour. [Wiki](https://2021.igem.org/Team:NTU-Singapore)https://static.igem.org/peertube/streaming-playlists/hls/bb3232ad-c945-4384-aaea-6ed4dbfa4fac/850861ee-156f-4d03-90a5-fa59f4dd7feb-master.m3u8https://video.igem.org/videos/embed/p7Hsg3Rg2Gz4tGB9mAN4Z7118032021-07-27T17:27:06.930ZLAMPCRISPRYES2021 Project PromotionsNOhttps://video.igem.org/w/81PAp7d9dLkjE23QuxdAnNhttps://video.igem.org/lazy-static/thumbnails/a6709c2e-1030-4504-9469-ff21ccdf3f48.jpgNUDT_CHINA: Light-mediated control of cell cycle in mammalian cells (2021) - Project Promotion [E...**Title:** Light-mediated control of cell cycle in mammalian cells **Description:** Optogenetic tools provide essential approaches to control designer cell function. Here we present a blue light-based system mediating the targeted degradation of endogenous proteins. By targeting cyclins, we intend to demonstrate a blue light control of cell cycle. [Wiki](https://2021.igem.org/Team:NUDT_CHINA)https://static.igem.org/peertube/streaming-playlists/hls/38cd4d07-74c9-4270-a34c-5ddf29cd4e08/7a57392c-cad0-4589-9a3e-0d491cffe579-master.m3u8https://video.igem.org/videos/embed/81PAp7d9dLkjE23QuxdAnN11801652021-07-27T17:27:31.711ZProtein DegradationOptogeneticsYES2021 Project PromotionsNOhttps://video.igem.org/w/fN1j7u41u2VA4bEjV6NNgzhttps://video.igem.org/lazy-static/thumbnails/56f63292-0af1-4106-8d17-856053540b74.jpgNU_Kazakhstan: Remi, du et! (2021) - Project Promotion [English]**Title:** Remi, du et! **Description:** Our goal is to modify bacteria P. putida with a plasmid carrying two genes originating from pathogenic P. aeruginosa in a way that would allow higher expression of rhamnolipids. This will be accomplished using our novel duet expression system under electrofermentative conditions, to upregulate bacterial metabolic pathways. Produced rhamnolipids will be used in ex-situ bioremediation of crude oil through emulsification, making it an eco-friendly way of treating oil spills! [Wiki](https://2021.igem.org/Team:NU_Kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/77cc58db-d5c4-4f6f-b2f8-1336fb53a61f/8226b04d-04a1-45a4-91db-9e4fb5b9ae1d-master.m3u8https://video.igem.org/videos/embed/fN1j7u41u2VA4bEjV6NNgz9002042021-07-27T17:27:32.691ZYES2021 Project PromotionsNOhttps://video.igem.org/w/j8Xcg34SgejRiZKcd4HNAuhttps://video.igem.org/lazy-static/thumbnails/2290ae99-ba86-40b2-b451-4e4f57ed4149.jpgNUS_Singapore: PRYSM (2021) - Project Promotion [English]**Title:** PRYSM **Description:** Our project seeks to enhance Singapore’s food security by using yeast to manufacture safe and environmentally friendly biopesticides to increase the productivity of indoor farms. To ensure accessibility and low costs, our yeast will be engineered to interact with an automated optogenetic bioreactor. [Wiki](https://2021.igem.org/Team:NUS_Singapore)https://static.igem.org/peertube/streaming-playlists/hls/92e0b783-fd1b-4d3d-b031-104a11fe9ea0/20fd7cb9-5e67-470a-9019-2b3effd0813f-master.m3u8https://video.igem.org/videos/embed/j8Xcg34SgejRiZKcd4HNAu12007802021-07-27T17:27:34.064ZSTRAWBERRYPRYSMYES2021 Project PromotionsNOhttps://video.igem.org/w/3pmtAGPAFQFDzT3nziy8jKhttps://video.igem.org/lazy-static/thumbnails/f59757e1-e254-497c-ba48-4101070b9854.jpgNUS_Singapore: PRYSM (2021) - Project Promotion [Chinese]**Title:** PRYSM **Description:** Our project seeks to enhance Singapore’s food security by using yeast to manufacture safe and environmentally friendly biopesticides to increase the productivity of indoor farms. To ensure accessibility and low costs, our yeast will be engineered to interact with an automated optogenetic bioreactor. [Wiki](https://2021.igem.org/Team:NUS_Singapore)https://static.igem.org/peertube/streaming-playlists/hls/137500b1-a609-4e80-8b4e-3d93bd5b7e2b/b9c48fee-b874-4c39-b644-fee1360589a3-master.m3u8https://video.igem.org/videos/embed/3pmtAGPAFQFDzT3nziy8jK1190582021-07-27T17:27:35.419ZPRYSMSTRAWBERRYYES2021 Project PromotionsNOhttps://video.igem.org/w/kE9VkEAnLpHz1s3nnFtXhyhttps://video.igem.org/lazy-static/thumbnails/18ea772f-76a0-4d39-b729-1584590095b9.jpgNWU-CHINA-A: The Biosynthesis of "Tyrain Purple" (2021) - Project Promotion [English]**Title:** The Biosynthesis of "Tyrain Purple" **Description:** Tyrian purple is a kind of natural pigment with a long history of production and application. Because of its low natural yield, difficulty in chemosynthesis and the potential pollution, we plan to implement a two-cell reaction by spatiotemporally separating the two consecutive procedures of the production to achieve the highest efficiency. [Wiki](https://2021.igem.org/Team:NWU-CHINA-A)https://static.igem.org/peertube/streaming-playlists/hls/9f31650c-8a36-4a9f-ba80-433fade78a84/dbe6cfc1-a2bc-42d9-ad35-86df8292cf41-master.m3u8https://video.igem.org/videos/embed/kE9VkEAnLpHz1s3nnFtXhy1200322021-07-27T17:28:01.883ZNATURALPIGMENTBIOLOGICALDYEYES2021 Project PromotionsNOhttps://video.igem.org/w/xvh9pD5AF4uPJ9JthZovEXhttps://video.igem.org/lazy-static/thumbnails/58577ad1-783b-4332-8603-422ed3d93d39.jpgNWU-CHINA-B: Transformation of rare ginsenosides (2021) - Project Promotion [English]**Title:** Transformation of rare ginsenosides **Description:** In order to improve the yield of ginsenoside CK, NWU-CHINA-B team focused on the successful expression of β-glycosidase (SS-bgly) derived from Phyllostella sulfoniformis in Pichia pastoris GS115 for the deglycation of Rb1 and the production of CK. [Wiki](https://2021.igem.org/Team:NWU-CHINA-B)https://static.igem.org/peertube/streaming-playlists/hls/ff21d145-f411-41b1-bec5-d29d762181a7/519721a7-dc7c-49cf-8654-508cab3f874f-master.m3u8https://video.igem.org/videos/embed/xvh9pD5AF4uPJ9JthZovEX1190192021-07-27T17:28:03.200ZAsiaChinaYES2021 Project PromotionsNOhttps://video.igem.org/w/4uSkNyGnqzq6zMDEhCrnHDhttps://video.igem.org/lazy-static/thumbnails/90b1b29a-4c2b-40be-bfc1-6fe68c6889b0.jpgNYC_B1O: ReFold (2021) - Project Promotion [English]**Title:** ReFold **Description:** Team NYC B10 tackles the seemingly intractable neurodegenerative disease, Parkinson's disease, which is likely caused by misfolding and aggregation of the synaptic protein Alpha-synuclein. The team has designed synthetic alpha-synuclein variants paired with a chaperon to prevent or reverse misfolding, and an autophagy tag to destroy misfolded aggregates. The team's avowed mission is to "make Parkinson's history." [Wiki](https://2021.igem.org/Team:NYC_B1O)https://static.igem.org/peertube/streaming-playlists/hls/1c5343fa-e7b7-4300-ba60-2bb95c0cd88b/263cdfd4-a2fc-4191-a180-fb35c914a6da-master.m3u8https://video.igem.org/videos/embed/4uSkNyGnqzq6zMDEhCrnHD1040202021-07-27T17:28:04.213ZAlpha-SynucleinParkinson's YES2021 Project PromotionsNOhttps://video.igem.org/w/eGVsUa3H4axKLhHbcjohijhttps://video.igem.org/lazy-static/thumbnails/f6f47035-4fc1-4da1-95a4-e4e9c3f65493.jpgNYCU-Taipei: Natto-It-Out (2021) - Project Promotion [English]**Title:** Natto-It-Out **Description:** Welcome to 2021 NYCU-Taipei, Natto It Out! Currently, there is still room for improvement for thrombosis detection and treatment. We present an approach incorporating a thrombosis risk detection system and gene-engineered probiotics to make timely medical care no longer an unreachable dream! [Wiki](https://2021.igem.org/Team:NYCU-Taipei)https://static.igem.org/peertube/streaming-playlists/hls/6efd8069-2ec3-4fd4-a7a2-63ce4caab79c/6f71f4c4-7975-4a75-b00e-a415ad59be66-master.m3u8https://video.igem.org/videos/embed/eGVsUa3H4axKLhHbcjohij1200742021-07-27T17:28:05.063ZthrombusnattokinaseYES2021 Project PromotionsNOhttps://video.igem.org/w/9PUvb9KAkFTKYCKXK3fXo4https://video.igem.org/lazy-static/thumbnails/ec733d22-eb4b-4c57-98c4-75b9e1e88f08.jpgNYU_Abu_Dhabi: Fungal Disease Diagnostics (2021) - Project Promotion [English]**Title:** Fungal Disease Diagnostics **Description:** At least 501 amphibian species are affected by the disease Chytridiomycosis, with 90 species extinct. Although we can’t reverse the damage done by Chytridiomycosis, we can monitor and reduce the spread of the disease by isolating outbreaks with the help of the point-of-care diagnostic device that the NYU Abu Dhabi iGEM team has been working on. [Wiki](https://2021.igem.org/Team:NYU_Abu_Dhabi)https://static.igem.org/peertube/streaming-playlists/hls/47796c2f-c7e5-4eb0-b2b8-ebea17dbe52b/09397c35-ecdb-4fc2-ab89-c4660bcef84f-master.m3u8https://video.igem.org/videos/embed/9PUvb9KAkFTKYCKXK3fXo41190392021-07-27T17:30:32.350ZdiagnosticsfungalYES2021 Project PromotionsNOhttps://video.igem.org/w/58FCQRg8dFtyAVpZaJK3rkhttps://video.igem.org/lazy-static/thumbnails/e8b1f4e1-b3d2-49a8-a3bb-dbb76138240c.jpgNYU_New_York: Portable Diagnostic Test Device for Influenza A (2021) - Project Promotion [English]**Title:** Portable Diagnostic Test Device for Influenza A **Description:** The NYU iGEM team is currently developing an affordable paper-based, cell-free diagnostic device for the influenza A strain using novel techniques, such toehold switches and loop-mediated isothermal amplification (LAMP), that can be performed at home without the need for expensive laboratory equipment. Our device creates a simple method to detect influenza A with a saliva sample that can also be easily distributed to aid local and global public health efforts. [Wiki](https://2021.igem.org/Team:NYU_New_York)https://static.igem.org/peertube/streaming-playlists/hls/21772fe5-8ebd-4351-a72e-b347b04db2bd/baab09db-4267-4cbb-baa6-93e20d06334b-master.m3u8https://video.igem.org/videos/embed/58FCQRg8dFtyAVpZaJK3rk890222021-07-27T17:30:33.300ZYES2021 Project PromotionsNOhttps://video.igem.org/w/7MQwDFdGifFQqmLtYxM8PFhttps://video.igem.org/lazy-static/thumbnails/18234754-129e-4419-bb44-1101f9422a5e.jpgOhioState: Lipid-A Phighter (2021) - Project Promotion [English]**Title:** Lipid-A Phighter **Description:** Approximately 1 in 5 deaths worldwide are sepsis-related. We propose a genetically engineered phage therapy that targets the harmful contribution of lipid-A in sepsis. [Wiki](https://2021.igem.org/Team:OhioState)https://static.igem.org/peertube/streaming-playlists/hls/36fd3554-bfcb-4814-b96f-ef5d0e53c281/7cb23f7c-9533-4dac-b450-f3f72c259aaf-master.m3u8https://video.igem.org/videos/embed/7MQwDFdGifFQqmLtYxM8PF1200282021-07-27T17:30:34.260ZYES2021 Project PromotionsNOhttps://video.igem.org/w/fhp33BK8yhwa7mzjX9Y4qAhttps://video.igem.org/lazy-static/thumbnails/09b13736-84e5-4daf-bfe2-da4c16304bb4.jpgOpen_Science_Global: Let's Democratize Biotechnology! (2021) - Project Promotion [English]**Title:** Let's Democratize Biotechnology! **Description:** Where is the "GNU Public License" or "Linux"" of biotech? How about the "Apple I/II" of biotech? Well, we have an answer for you: The BioBricks Foundation Open Materials Transfer Agreement (OpenMTA), FreeGenes Initiative, and Friendzymes, respectively. What is Friendzymes, you ask? We are also known by another name this 2021 iGEM competition: Open Science Global. Our team plans to make it cheaper, faster, and easier for people to do bioengineering by openly designing important enzyme constructs. [Wiki](https://2021.igem.org/Team:Open_Science_Global)https://static.igem.org/peertube/streaming-playlists/hls/73aa099c-739d-4747-9144-73c4654ba29e/9a015bae-1e7f-4e97-adbe-d124dfdd3a5d-master.m3u8https://video.igem.org/videos/embed/fhp33BK8yhwa7mzjX9Y4qA1190342021-07-27T17:33:02.365Z#collaboration#openscienceYES2021 Project PromotionsNOhttps://video.igem.org/w/eH2fZPe25RCARXWrH8zW7ihttps://video.igem.org/lazy-static/thumbnails/f989da77-2dca-45fe-9417-4e1b6377aaec.jpgOUC-China: ALLPASs (2021) - Project Promotion [English]**Title:** ALLPASs **Description:** The abuse of antibiotics have posed a great threat to the ecological environment and human health. Therefore, team OUC-China aims to design whole cell biosensors to detect antibiotics with higher response speed, signal-noise ratio and wider dynamic range. [Wiki](https://2021.igem.org/Team:OUC-China)https://static.igem.org/peertube/streaming-playlists/hls/6f0112a0-f2c5-4ca6-be0f-ac7aad68b47d/2619a95a-acda-4931-b8ab-826c8098447a-master.m3u8https://video.igem.org/videos/embed/eH2fZPe25RCARXWrH8zW7i1200322021-07-27T17:33:31.438ZBIOSENSORANTIBIOTICYES2021 Project PromotionsNOhttps://video.igem.org/w/8W7KDyvNWwYkaDTVUJ8rdChttps://video.igem.org/lazy-static/thumbnails/9fcea299-d6e6-4657-a7bb-aab2641f19e9.jpgOUC-R: Solving Sudoku (2021) - Project Promotion [English]**Title:** Solving Sudoku **Description:** We're going to use nucleic acid switches to build a biological system, and we're going to use this biological system to solve Sudoku problems from 3*3 to 9*9. We will use different nucleic acid switches to represent the possibilities of each grid, and use these conditions to solve the problem. [Wiki](https://2021.igem.org/Team:OUC-R)https://static.igem.org/peertube/streaming-playlists/hls/403e4bac-ab7a-4e5e-be5e-05b560226958/145cb008-8ab6-420f-bd10-3724e7a6b8c3-master.m3u8https://video.igem.org/videos/embed/8W7KDyvNWwYkaDTVUJ8rdC1200212021-07-27T17:33:55.621ZYES2021 Project PromotionsNOhttps://video.igem.org/w/pcWmHR4kLSNk6zNxYnvM2xhttps://video.igem.org/lazy-static/thumbnails/ca992524-5823-45a2-bf6d-9b746dc82faa.jpgParis_Bettencourt: Minicells for bio-production of pigments (2021) - Project Promotion [English]**Title:** Minicells for bio-production of pigments **Description:** 5 million tons of pigments are produced each year. Unfortunately, the industry of pigments production is far from being sustainable because of high water consumption, use of fossil resources and because it is limited to big facilities. This year our iGEM team Paris Bettencourt decided to tackle this issue. With the use of bacteria, more precisely minicells, we try to come a step closer towards a biosafe, environmentally friendly, and local manufacturing of pigments. [Wiki](https://2021.igem.org/Team:Paris_Bettencourt)https://static.igem.org/peertube/streaming-playlists/hls/bbecde97-ed13-4765-9c4f-f43b68253745/3b72616f-e772-4364-8d56-22b1e1d68230-master.m3u8https://video.igem.org/videos/embed/pcWmHR4kLSNk6zNxYnvM2x12001422021-07-27T17:35:10.394ZYES2021 Project PromotionsNOhttps://video.igem.org/w/d16A219SSpLDWUztpSTyMphttps://video.igem.org/lazy-static/thumbnails/7154f698-5b5e-43e9-8589-921a8d089ebe.jpgPhystech_Moscow: Tool for miRNA-lncRNA interaction prediction (2021) - Project Promotion [English]**Title:** Tool for miRNA-lncRNA interaction prediction **Description:** Interactions between miRNA and lncRNA are in special interest for science and medicine. The existing web services for predicting these interactions have low accuracy and insufficient functionality for the research. Our goal is to help scientists working in this field. That is why we are creating an open-source web service to accurately predict lncRNA and microRNA interactions. The model of the service is based on the neural network architecture. [Wiki](https://2021.igem.org/Team:Phystech_Moscow)https://static.igem.org/peertube/streaming-playlists/hls/61311b52-62f4-4cf8-92ad-1fd1b9335a81/4feacf7e-ec93-481b-8882-cf37f9ede0c7-master.m3u8https://video.igem.org/videos/embed/d16A219SSpLDWUztpSTyMp1140502021-07-27T17:35:12.663ZRNAiAIYES2021 Project PromotionsNOhttps://video.igem.org/w/hUZ4u86Z8UZTt94LjfBKY7https://video.igem.org/lazy-static/thumbnails/d64c07f2-9bfa-4f0d-94a1-d03001a7807e.jpgPittsburgh: ColonDetective (2021) - Project Promotion [English]**Title:** ColonDetective **Description:** Our project is focused on the design of a system to detect colon cancer by producing a color change in stool using engineered E coli cells. [Wiki](https://2021.igem.org/Team:Pittsburgh)https://static.igem.org/peertube/streaming-playlists/hls/88f80f22-e15f-4b53-bce5-ef84f5f01dda/9fd22b30-c34d-4b9f-9108-7c67ed937fff-master.m3u8https://video.igem.org/videos/embed/hUZ4u86Z8UZTt94LjfBKY71200212021-07-27T17:35:40.858ZNorthAmericaEastUnitedStatesYES2021 Project PromotionsNOhttps://video.igem.org/w/dXderUQvLjKkezgJgB1QuKhttps://video.igem.org/lazy-static/thumbnails/7ca20ec7-3657-41fc-856f-dd9a1a93ad71.jpgPuiChing_Macau: Turning Food Waste into Degradable PLA Bioplastic Using Engineer... (2021) - Proj...**Title:** Turning Food Waste into Degradable PLA Bioplastic Using Engineered E.coli **Description:** Macau, being one of the cities of gastronomy, its food waste has been turning into an urgent issue. With current solutions being insufficient and boasting harmful effects on both the people and precious urban spaces of Macau, the following video will explain how we are planning to tackle this problem with a sustainable approach. Together, with Geni, our mascot, we will elaborate on how we can provide a reuse opportunity for food waste by turning it into biodegradable plastic. [Wiki](https://2021.igem.org/Team:PuiChing_Macau)https://static.igem.org/peertube/streaming-playlists/hls/68e31c02-3fc1-43dc-94b7-f6a1487645d3/39b462d9-6750-4f33-b8e7-ec2fc7f926e3-master.m3u8https://video.igem.org/videos/embed/dXderUQvLjKkezgJgB1QuK1200672021-07-27T17:35:41.973ZFoodwasteBioplasticYES2021 Project PromotionsNOhttps://video.igem.org/w/bCS4TrPy46umL3VDaUzqiEhttps://video.igem.org/lazy-static/thumbnails/0440ad54-5256-4e7d-9872-0c023ee67c5a.jpgPurdue: cArgo: a Rapid Saliva-Based Point-of-Care Diagnostic Test (2021) - Project Promotion [Eng...**Title:** cArgo: a Rapid Saliva-Based Point-of-Care Diagnostic Test **Description:** Purdue iGEM is back at it again with the second phase of our 2020 project, cArgo: a versatile diagnostic system using Argonaute proteins. Last year, we focused on developing cArgo as a proposed rapid microfluidic saliva diagnostic device to solve many of the testing problems experienced during the COVID-19 pandemic. This year, we're focused on validating our testing assay, characterizing our Parts, and determining future implications of our project post-COVID. [Wiki](https://2021.igem.org/Team:Purdue)https://static.igem.org/peertube/streaming-playlists/hls/56210468-3a8a-4e75-a79b-0880881a7628/312c9bda-7567-4f60-893f-818fd1c2de40-master.m3u8https://video.igem.org/videos/embed/bCS4TrPy46umL3VDaUzqiE1160242021-07-27T17:35:43.029ZCOVID-19pandemicYES2021 Project PromotionsNOhttps://video.igem.org/w/gLqguTYt7tkwc23n2b4vp4https://video.igem.org/lazy-static/thumbnails/525f5e9a-8cd1-4928-9d69-99e3c883e6a1.jpgQdai: Alternative to Canary (2021) - Project Promotion [English]**Title:** Alternative to Canary **Description:** We are iGEM Qdai !! [Wiki](https://2021.igem.org/Team:Qdai)https://static.igem.org/peertube/streaming-playlists/hls/7facc2cf-9032-4599-94e7-d5665fa82045/c181dc5b-ca53-4e7d-99f6-b72bc3680df3-master.m3u8https://video.igem.org/videos/embed/gLqguTYt7tkwc23n2b4vp41190312021-07-27T17:35:44.352ZJapanQdaiYES2021 Project PromotionsNOhttps://video.igem.org/w/jzoCaT5ZPuw5SQv35nmr2zhttps://video.igem.org/lazy-static/thumbnails/40d1b2cd-3bbf-457b-8ccb-07ba7e6cee84.jpgQdai: Alternative to Canary (2021) - Project Promotion [Japanese]**Title:** Alternative to Canary **Description:** We are iGEM Qdai !! [Wiki](https://2021.igem.org/Team:Qdai)https://static.igem.org/peertube/streaming-playlists/hls/966dfb8b-5c8f-4ce9-9004-a9ce9d081dcf/7434803e-86ef-4ada-866a-89b185ede0a8-master.m3u8https://video.igem.org/videos/embed/jzoCaT5ZPuw5SQv35nmr2z1190232021-07-27T17:35:45.672ZJapanQdaiYES2021 Project PromotionsNOhttps://video.igem.org/w/gbRBHbAJUxRZcFgzU8mRrjhttps://video.igem.org/lazy-static/thumbnails/1a5bc228-c5d7-4086-987e-3b3b1291353a.jpgQHFZ: A novel approach for bio-production of Tyrian purple and its derivatives (2021) - Project P...**Title:** A novel approach for bio-production of Tyrian purple and its derivatives **Description:** Our goal is to produce Tyrian purple in E.coli and revive the ancient glory of this dye. Tyrian purple has a long history and a glory past. It is produced from Murex snails, but the production efficiency is incredibly slow. Microbes have enzymes that catalyze chemical reactions. In the end, we hope to make large-scale industrial production a possibility. [Wiki](https://2021.igem.org/Team:QHFZ)https://static.igem.org/peertube/streaming-playlists/hls/7afd1827-ae9e-4760-ac58-a6e753b78170/eec60a42-1796-4fdc-ad69-f50ea2c8f4fd-master.m3u8https://video.igem.org/videos/embed/gbRBHbAJUxRZcFgzU8mRrj1200192021-07-27T17:36:16.119ZdyesYES2021 Project PromotionsNOhttps://video.igem.org/w/jsRdMBY9kT9DQbRK6wsurmhttps://video.igem.org/lazy-static/thumbnails/50696ee2-6e13-4b2b-b8ef-affa768634ea.jpgQueens_Canada: SUBLyme (2021) - Project Promotion [English]**Title:** SUBLyme **Description:** We are developing a field kit to test for Lyme disease within ticks. Our biotechnology uses a lateral flow assay that is partnered with an extraction device. Since, Lyme disease is prevalent within Kingston, we hope to bridge the gap in testing for humans and animals alike. [Wiki](https://2021.igem.org/Team:Queens_Canada)https://static.igem.org/peertube/streaming-playlists/hls/95842ac6-100b-4877-aee3-74dc49bb6efe/5230cf22-83ac-4a0a-a452-baa2d9fb62fe-master.m3u8https://video.igem.org/videos/embed/jsRdMBY9kT9DQbRK6wsurm1200402021-07-27T17:36:58.521ZDiagnosticKingstonYES2021 Project PromotionsNOhttps://video.igem.org/w/neJUugPCPx9LBkb9gPsuoMhttps://video.igem.org/lazy-static/thumbnails/8dd1773b-6ef8-4e29-96ae-f8c71bd4fe90.jpgRDFZ-CHINA: Killer X (2021) - Project Promotion [English]**Title:** Killer X **Description:** Killer X is designed to terminate Xanthomonas, one of the most threatening bacteria that causes plants disease and yield loss in agriculture every year. In this specific case, we focus on phage therapy, a rarely noticed but powerful solution. We are using synthetic biology technologies to increase the sustainability of the and decrease the virulence. [Wiki](https://2021.igem.org/Team:RDFZ-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/abfb05a1-0a31-4d55-9ad8-456c229b8379/517779d7-2e4e-45f4-bd6b-5ed6259c0453-master.m3u8https://video.igem.org/videos/embed/neJUugPCPx9LBkb9gPsuoM1200182021-07-27T17:36:59.600Zphage therapyagricultureYES2021 Project PromotionsNOhttps://video.igem.org/w/9umLmxHYqP3HNydXBx2g1Whttps://video.igem.org/lazy-static/thumbnails/bc58e73f-a5ce-4a06-a14c-d267879ac0e5.jpgRHS-Calgary: GlucoLitter (2021) - Project Promotion [English]**Title:** GlucoLitter **Description:** It is incredibly difficult and expensive for pet owners to get their cat tested for high levels of glucose. By the time cats show symptoms that prompt their owners to get them checked out, they may be unable to be treated, decreasing their life expectancy and quality of life. GlucoLitter allows all cat owners to know when they need to take their furry friend in for a check-up. Our product will produce a color change to indicate if there are abnormal amounts of glucose in a cats urine. [Wiki](https://2021.igem.org/Team:RHS-Calgary)https://static.igem.org/peertube/streaming-playlists/hls/44bebb47-6c3a-4f59-ad6d-0c757e434f0a/fd9f9a26-4181-4fc7-b2a7-3e74a2388466-master.m3u8https://video.igem.org/videos/embed/9umLmxHYqP3HNydXBx2g1W1200142021-07-27T17:37:42.855ZYES2021 Project PromotionsNOhttps://video.igem.org/w/kYG2uXzCe7VFNMns1d8kTDhttps://video.igem.org/lazy-static/thumbnails/8d8f4dd2-df55-4338-bf3f-082d6c46f5f2.jpgRio_UFRJ_Brazil: Ammit: New serological diagnosis strategy for arboviroses (2021) - Project Promo...**Title:** Ammit: New serological diagnosis strategy for arboviroses **Description:** Dengue disease causes many deaths around the world. Usual tests are non-specific and may cross-react with other flaviviruses such as Zika. To solve this problem, we design Ammit: a chimeric protein made from DENV epitopes, which will make the tests more specific. [Wiki](https://2021.igem.org/Team:Rio_UFRJ_Brazil)https://static.igem.org/peertube/streaming-playlists/hls/a1c7f3d4-d0f6-4cae-b133-cbfd686b5537/cbab921a-fa86-4c3e-8a04-b24b7486cabc-master.m3u8https://video.igem.org/videos/embed/kYG2uXzCe7VFNMns1d8kTD12001662021-07-27T17:38:21.130ZOsírisBrazilYES2021 Project PromotionsNOhttps://video.igem.org/w/an9yNyXu4Q1FKFrxTEAkUmhttps://video.igem.org/lazy-static/thumbnails/93c716a2-d784-4e8a-bce3-46f65b88cef5.jpgRochester: Bio-Spire, continuous monitoring of sepsis biomarkers in sweat (2021) - Project Promot...**Title:** Bio-Spire, continuous monitoring of sepsis biomarkers in sweat **Description:** What if you could continuously monitor chemical signals without using a single needle to draw your blood? Team Bio-Spire aims to develop a wearable biosensor to monitor levels of sepsis-related biomarkers in sweat, which can help doctors to understand the health status of patients. [Wiki](https://2021.igem.org/Team:Rochester)https://static.igem.org/peertube/streaming-playlists/hls/4bd62555-0067-4d29-99dc-729972a04758/3ac8e2f6-f3af-4f6d-bfa0-decdc12229b3-master.m3u8https://video.igem.org/videos/embed/an9yNyXu4Q1FKFrxTEAkUm1200382021-07-27T17:39:01.464ZdiagnosisSepsisYES2021 Project PromotionsNOhttps://video.igem.org/w/9QiXz7X9Tf1XZk4b6JVKzVhttps://video.igem.org/lazy-static/thumbnails/12058aac-2109-417c-bfdc-58601217d9de.jpgRochester: Bio-Spire, continuous monitoring of sepsis biomarkers in sweat (2021) - Project Promot...**Title:** Bio-Spire, continuous monitoring of sepsis biomarkers in sweat **Description:** What if you could continuously monitor chemical signals without using a single needle to draw your blood? Team Bio-Spire aims to develop a wearable biosensor to monitor levels of sepsis-related biomarkers in sweat, which can help doctors to understand the health status of patients. [Wiki](https://2021.igem.org/Team:Rochester)https://static.igem.org/peertube/streaming-playlists/hls/4787e098-64b4-420b-870b-3eac43828ec3/ef899ab0-0bba-4393-bcaa-132a6e8b98df-master.m3u8https://video.igem.org/videos/embed/9QiXz7X9Tf1XZk4b6JVKzV120012021-07-27T17:40:11.440ZdiagnosisSepsisYES2021 Project PromotionsNOhttps://video.igem.org/w/nN8oNzoPhfCMi1H8pKuWshhttps://video.igem.org/lazy-static/thumbnails/481e3c96-3559-4dab-90b9-33d9f9db8745.jpgRochester: Bio-Spire, continuous monitoring of sepsis biomarkers in sweat (2021) - Project Promot...**Title:** Bio-Spire, continuous monitoring of sepsis biomarkers in sweat **Description:** What if you could continuously monitor chemical signals without using a single needle to draw your blood? Team Bio-Spire aims to develop a wearable biosensor to monitor levels of sepsis-related biomarkers in sweat, which can help doctors to understand the health status of patients. [Wiki](https://2021.igem.org/Team:Rochester)https://static.igem.org/peertube/streaming-playlists/hls/b080ae75-11e4-41bf-8246-d192b85f933c/e0b25c91-5abf-435f-96b6-7015f141c20f-master.m3u8https://video.igem.org/videos/embed/nN8oNzoPhfCMi1H8pKuWsh120012021-07-27T17:40:51.336ZdiagnosisSepsisYES2021 Project PromotionsNOhttps://video.igem.org/w/5TU28PxdQiu9n9fdNjF11yhttps://video.igem.org/lazy-static/thumbnails/543cd8fe-e35e-4800-9159-172a8a22713b.jpgRochester: Bio-Spire, continuous monitoring of sepsis biomarkers in sweat (2021) - Project Promot...**Title:** Bio-Spire, continuous monitoring of sepsis biomarkers in sweat **Description:** What if you could continuously monitor chemical signals without using a single needle to draw your blood? Team Bio-Spire aims to develop a wearable biosensor to monitor levels of sepsis-related biomarkers in sweat, which can help doctors to understand the health status of patients. [Wiki](https://2021.igem.org/Team:Rochester)https://static.igem.org/peertube/streaming-playlists/hls/27a38b8c-1901-4f8c-b18d-1a72c4f32218/08601efc-0c0c-4619-ba06-f415e5dccc49-master.m3u8https://video.igem.org/videos/embed/5TU28PxdQiu9n9fdNjF11y120092021-07-27T17:41:31.187ZdiagnosisSepsisYES2021 Project PromotionsNOhttps://video.igem.org/w/8s1NPbTmACxKzPdkQ2RyyDhttps://video.igem.org/lazy-static/thumbnails/bb824ab2-9ba0-4376-93ed-7a1f42191280.jpgRochester: Bio-Spire, continuous monitoring of sepsis biomarkers in sweat (2021) - Project Promot...**Title:** Bio-Spire, continuous monitoring of sepsis biomarkers in sweat **Description:** What if you could continuously monitor chemical signals without using a single needle to draw your blood? Team Bio-Spire aims to develop a wearable biosensor to monitor levels of sepsis-related biomarkers in sweat, which can help doctors to understand the health status of patients. [Wiki](https://2021.igem.org/Team:Rochester)https://static.igem.org/peertube/streaming-playlists/hls/3c51ce59-6aa1-4218-aa1a-7623ee42ca5d/05004706-9748-46cc-81be-e31bd3bfc12d-master.m3u8https://video.igem.org/videos/embed/8s1NPbTmACxKzPdkQ2RyyD120032021-07-27T17:42:11.086ZSepsisdiagnosisYES2021 Project PromotionsNOhttps://video.igem.org/w/fdekBCjod1iUdP552tZno6https://video.igem.org/lazy-static/thumbnails/147df56e-15a9-44b1-ad8d-ed286c0fb4ee.jpgRochester: Bio-Spire, continuous monitoring of sepsis biomarkers in sweat (2021) - Project Promot...**Title:** Bio-Spire, continuous monitoring of sepsis biomarkers in sweat **Description:** What if you could continuously monitor chemical signals without using a single needle to draw your blood? Team Bio-Spire aims to develop a wearable biosensor to monitor levels of sepsis-related biomarkers in sweat, which can help doctors to understand the health status of patients. [Wiki](https://2021.igem.org/Team:Rochester)https://static.igem.org/peertube/streaming-playlists/hls/7315161f-d587-43dc-8e38-ea9b4f63c42d/e6d5c0a5-b1c9-4085-9d74-182cc55a6e60-master.m3u8https://video.igem.org/videos/embed/fdekBCjod1iUdP552tZno6120082021-07-27T17:42:50.815ZdiagnosisSepsisYES2021 Project PromotionsNOhttps://video.igem.org/w/9uLetUV6dKs73sz51K9T94https://video.igem.org/lazy-static/thumbnails/88338c36-09e7-42ea-8ee8-59af0a941a5a.jpgRochester: Bio-Spire, continuous monitoring of sepsis biomarkers ... (2021) - Project Promotion [...**Title:** Bio-Spire, continuous monitoring of sepsis biomarkers in sweat **Description:** What if you could continuously monitor chemical signals without using a single needle to draw your blood? Team Bio-Spire aims to develop a wearable biosensor to monitor levels of sepsis-related biomarkers in sweat, which can help doctors to understand the health status of patients. [Wiki](https://2021.igem.org/Team:Rochester)https://static.igem.org/peertube/streaming-playlists/hls/44cd31ad-0b59-48dd-828b-3e4d62283c6f/60415bf8-1552-40ad-a8bb-51c8c4be2b7d-master.m3u8https://video.igem.org/videos/embed/9uLetUV6dKs73sz51K9T94117032021-07-27T17:43:43.888ZSepsisdiagnosisYES2021 Project PromotionsNOhttps://video.igem.org/w/woRxfwzk5fibY53LPMag6thttps://video.igem.org/lazy-static/thumbnails/44ce4e95-e700-4e0c-9dcd-f9d09459e671.jpgRUBochum: Platylicious (2021) - Project Promotion [English]**Title:** Platylicious **Description:** Due to environmental pollution, animal exploitation and suffering, more and more people are looking for alternatives to conventionally produced animal products. As the first iGEM Team from the Ruhr-University Bochum the goal of our "Project Platylicious" is to produce “vegan” vanilla yogurt, based on cow and platypus milk. In addition, by including the platypus, an awareness of endangered species can be created among the population. [Wiki](https://2021.igem.org/Team:RUBochum)https://static.igem.org/peertube/streaming-playlists/hls/f6230d57-1f34-4921-ab76-e3d1a518a1f1/8c7cff21-cce6-4407-959f-64d12522d053-master.m3u8https://video.igem.org/videos/embed/woRxfwzk5fibY53LPMag6t810362021-07-27T17:43:44.986ZenvironmentplatypusYES2021 Project PromotionsNOhttps://video.igem.org/w/3Y6jGPzhGr7ttDxAYA7Si7https://video.igem.org/lazy-static/thumbnails/a3257d23-623f-4e83-a2e5-322d063c67a8.jpgRUM-UPRM: R-DetoX (2021) - Project Promotion [English]**Title:** R-DetoX **Description:** Vieques, an island-municipality of Puerto Rico, was utilized for military practices for over 60 years. The materials and explosives used caused an increase in health risk and devastating effects on the biodiversity. Currently, there are clean up initiatives that are too expensive and time-consuming. Therefore, our project, “R-DetoX”, aims to create a genetic circuit capable of fulfilling the biodegradation of RDX, an explosive found in most of Vieques’ water sources. [Wiki](https://2021.igem.org/Team:RUM-UPRM)https://static.igem.org/peertube/streaming-playlists/hls/18073562-81f6-4397-b094-bd2c179f51f8/0354ea8a-00a2-4926-a9f5-d328432f2b3f-master.m3u8https://video.igem.org/videos/embed/3Y6jGPzhGr7ttDxAYA7Si71170242021-07-27T17:44:32.742ZRDXBIODEGRADATIONYES2021 Project PromotionsNOhttps://video.igem.org/w/aYq9CtjPw79guPaSqN1qhbhttps://video.igem.org/lazy-static/thumbnails/c924de60-6e99-4b32-82a7-60f52348fead.jpgSaint_Joseph: Celullophile (2021) - Project Promotion [English]**Title:** Celullophile **Description:** Cellulophile is an alternative solution for wastewater treatment. Pipes are getting clogged by paper products, current treatment systems aren't efficient enough. With Cellulophile the treatment will use less water and will lower the risk of clogged pipes for good. [Wiki](https://2021.igem.org/Team:Saint_Joseph)https://static.igem.org/peertube/streaming-playlists/hls/50c2c801-4c26-4d7c-a976-b86eefb078ea/b4d398d4-614d-490c-a8c4-aac71ac0d965-master.m3u8https://video.igem.org/videos/embed/aYq9CtjPw79guPaSqN1qhb1200362021-07-27T17:45:26.912ZYES2021 Project PromotionsNOhttps://video.igem.org/w/nXN6WCWKNXkm1Yaf1VeQJ3https://video.igem.org/lazy-static/thumbnails/c657158f-e859-4b78-8301-6878f247a2f2.jpgSCAU-China: metal eater MESEG (2021) - Project Promotion [English]**Title:** metal eater MESEG **Description:** Autophagy vesicles can encapsulate foreign materials and waste macromolecules, and fuse with vacuoles to realize "waste recycling". The heavy metal philic protein and AIM gene were fused and expressed, and AIM could interact with Atg8 on autophagy vesicles, so heavy metal ions were wrapped into autophagy vesicles and eventually stored in vacuole. [Wiki](https://2021.igem.org/Team:SCAU-China)https://static.igem.org/peertube/streaming-playlists/hls/b1da3b19-3194-48cd-bcad-ad9da5c00e9e/2d3fe0fe-1325-475c-a363-85f102340540-master.m3u8https://video.igem.org/videos/embed/nXN6WCWKNXkm1Yaf1VeQJ3840542021-07-27T17:45:27.901ZenvironmentChinaYES2021 Project PromotionsNOhttps://video.igem.org/w/448YrBiLSbw5tHAfvTB2GLhttps://video.igem.org/lazy-static/thumbnails/40df0479-eecc-4e50-b9d2-09e9083cf2df.jpgSCU-China: Efficient tool for gene regulation in Vibrio. natriegens (2021) - Project Promotion [E...**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Efficient tool for gene regulation in Vibrio. natriegens **Description:** Vibrio. natriegens is a fast-growing bacteria that can multiply in seven to ten minutes. Until now, it has been engineered to produce proteins, melanin and so on. To further explore the capacity of Vibrio. natriegens as a chassis, we will construct a collection based on Marburg collection for strict and subtle regulation of artificial gene circuits and a flexible tool based on CasΦ-2 for gene regulation as well. [Wiki](https://2021.igem.org/Team:SCU-China)https://static.igem.org/peertube/streaming-playlists/hls/18bb8f97-85dc-4445-a478-1d4fb1a8daa8/a418d47f-52c6-46b3-a9c6-2dc10e9fd689-master.m3u8https://video.igem.org/videos/embed/448YrBiLSbw5tHAfvTB2GL1090242021-07-27T17:46:37.030ZYES2021 Project PromotionsNOhttps://video.igem.org/w/pPc11iq9W2s51axSG2J2bDhttps://video.igem.org/lazy-static/thumbnails/c4ba138f-3785-48ef-aaa3-7a71672575fc.jpgSCUT-China: Nootka-BOOM! (2021) - Project Promotion [English]**Title:** Nootka-BOOM! **Description:** Lacking of suitable mosquito repellent for pregnant women and infants has been an annoying problem, which may be alleviated by secure nootkatone. We try to get stronger promoters that bring more precursor of nootkatone(valencene) by recombining UAS to achieve higher market shares of nootkatone. [Wiki](https://2021.igem.org/Team:SCUT-China)https://static.igem.org/peertube/streaming-playlists/hls/c0d8ece8-09ae-442e-a4b8-cf3e7c685f2d/c9fe4f9a-3a47-4e78-a794-ee94df35c466-master.m3u8https://video.igem.org/videos/embed/pPc11iq9W2s51axSG2J2bD1200272021-07-27T17:47:12.707ZYES2021 Project PromotionsNOhttps://video.igem.org/w/8rvycYw3Bd4bv3chuuXRHMhttps://video.igem.org/lazy-static/thumbnails/550ce85b-da9b-4615-a9e4-876a23cd0f0e.jpgSDSU: Desal, Degrade, and Decarbonization (2021) - Project Promotion [English]**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Desal, Degrade, and Decarbonization **Description:** Three issues we are facing right now are water scarcity, plastic waste accumulation, and CO2 emissions. SDSU iGEM's bioreactor metabolizes cellulose and PET, while using reactor designed and microbial communities to desalinate water, treat wastewater, and upgrade CO2 to a biofuel. [Wiki](https://2021.igem.org/Team:SDSU)https://static.igem.org/peertube/streaming-playlists/hls/3c3fc769-f77a-4d4a-ba9a-111da884e2b3/ed0a38b8-4f12-455a-8c3a-8b4bd3513e1e-master.m3u8https://video.igem.org/videos/embed/8rvycYw3Bd4bv3chuuXRHM1150132021-07-27T17:47:14.091ZYES2021 Project PromotionsNOhttps://video.igem.org/w/2t8oFcBNXesgBX92mNFAGthttps://video.igem.org/lazy-static/thumbnails/90f39347-6388-4765-b459-90c125869fd6.jpgSDSZ_China: City Band-aid (2021) - Project Promotion [English]**Title:** City Band-aid **Description:** Building repair is crucial when it comes to ancient buildings, since cracking impacts hugely on its durability. Our team, uses a new microbial technology with its advantages of green environmental protection as well as real-time remediation, to help fix this issue with its great potential for development. [Wiki](https://2021.igem.org/Team:SDSZ_China)https://static.igem.org/peertube/streaming-playlists/hls/0be2c679-989e-4bec-9098-d5302de7c8ab/25f965cd-6eb5-46a1-876f-1e051d4871b2-master.m3u8https://video.igem.org/videos/embed/2t8oFcBNXesgBX92mNFAGt1200632021-07-27T17:48:32.727Zrepairancient buildingsYES2021 Project PromotionsNOhttps://video.igem.org/w/9c2cinQSKhgV7pH7TgdUkKhttps://video.igem.org/lazy-static/thumbnails/2145a25b-8a54-44f7-901d-ea1cfbfbd721.jpgSDU-Denmark: PsiloAid (2021) - Project Promotion [English]**Title:** PsiloAid **Description:** This promotion video adresses an important problem: the increase in people diagnosed with depression after the COVID-19 lockdowns. However, research has shown that psilocybin is a potential candidate for treating depression among other mental illnesses. There is a limited but growing body of research showing that great promise to this way of treating depression. In this video we introduce how we plan to contribute to the field that is currently researching this treatment method. [Wiki](https://2021.igem.org/Team:SDU-Denmark)https://static.igem.org/peertube/streaming-playlists/hls/425306ee-feef-4ab6-bac4-74102efe6f79/53807b62-2390-4607-8440-f69094bc352b-master.m3u8https://video.igem.org/videos/embed/9c2cinQSKhgV7pH7TgdUkK1200872021-07-27T17:48:33.876ZpsilocybindepressionYES2021 Project PromotionsNOhttps://video.igem.org/w/5TNLrNnA3J9QkCqoFuGVu9https://video.igem.org/lazy-static/thumbnails/4edeebd2-21f3-4f4f-b04d-ae54354fe02d.jpgShanghai_city: Heartinker - Based on 5-HT theory to explore new solutions to cur... (2021) - Proj...**Title:** Heartinker - Based on 5-HT theory to explore new solutions to cure the depression **Description:** Our project is rooted in the theoretical of the interaction between 5-HT and depression, in order to explore the "depression nemesis" from two aspects, engineering probiotics and cell screening platforms respectively. We hope to help depressed patients for relieving their pain and finding happiness. [Wiki](https://2021.igem.org/Team:Shanghai_city)https://static.igem.org/peertube/streaming-playlists/hls/27a04ec2-d12d-4541-a53d-07040821c5b4/69623ce9-4067-4b69-8ebd-7e3df55fa456-master.m3u8https://video.igem.org/videos/embed/5TNLrNnA3J9QkCqoFuGVu91190342021-07-27T17:48:34.960ZYES2021 Project PromotionsNOhttps://video.igem.org/w/ay3Bgc8mfdmcECLmwnfJ4Uhttps://video.igem.org/lazy-static/thumbnails/3731df17-91df-48f0-b9a1-84c62a3e1002.jpgShanghai_City_United: Probiotics for better grain feed with better digestion (2021) - Project Pro...**Title:** Probiotics for better grain feed with better digestion **Description:** Our team plans to construct new intestinal probiotics for poultry to degrade xylan by secreting enzymes, enhancing the digestive capacity of poultry also the nutrient utilization of grain feed. [Wiki](https://2021.igem.org/Team:Shanghai_City_United)https://static.igem.org/peertube/streaming-playlists/hls/4d5ba7e2-2e34-41dc-96a2-2eb062e5890a/c4cb8c0a-e399-419e-9a67-172343170ddf-master.m3u8https://video.igem.org/videos/embed/ay3Bgc8mfdmcECLmwnfJ4U830112021-07-27T17:48:51.703ZYES2021 Project PromotionsNOhttps://video.igem.org/w/w34XR49rT89HY2pZwT5932https://video.igem.org/lazy-static/thumbnails/5cb5b482-18c6-4d3d-b894-16b4737c4f43.jpgShanghai_high_school: Oral vaccine against viral infantile diarrhoea (2021) - Project Promotion [...**Title:** Oral vaccine against viral infantile diarrhoea **Description:** Rotavirus is the main viral pathogen causing severe acute infantile diarrhoea. Therefore, we selected vp7 antigen on the shell of Rotavirus and constructed an oral live vaccine using lactic acid bacteria as the carrier to enhance the ability of infants to resist Rotavirus infection. [Wiki](https://2021.igem.org/Team:Shanghai_high_school)https://static.igem.org/peertube/streaming-playlists/hls/f33c16eb-f0f4-42bd-ba5f-f0529d9e4fe5/f6d21e82-9f6d-492d-b888-a28b0628da61-master.m3u8https://video.igem.org/videos/embed/w34XR49rT89HY2pZwT5932120092021-07-27T17:49:16.557ZYES2021 Project PromotionsNOhttps://video.igem.org/w/bQkPRyAFBFzSeXRQTpddLphttps://video.igem.org/lazy-static/thumbnails/fd8964ab-62f4-4d2f-8ac1-a834b4d1c57f.jpgShanghai_HS: Pansolver Base-the inhibitory of COVID-19 antibody against the muta... (2021) - Proj...**Title:** Pansolver Base-the inhibitory of COVID-19 antibody against the mutant B.1.1.7 **Description:** We conducted a research project on the inhibitory ability of the anti-COVID-19 monoclonal antibody against the mutant STRAIN B.1.1.7, hoping to contribute wisdom and strength to the global epidemic response! [Wiki](https://2021.igem.org/Team:Shanghai_HS)https://static.igem.org/peertube/streaming-playlists/hls/57bb4e21-78ba-4f48-bdff-4ff17eff746f/6f9e56c7-a2d6-4db8-8f6b-48e5cf5a0d63-master.m3u8https://video.igem.org/videos/embed/bQkPRyAFBFzSeXRQTpddLp1200282021-07-27T17:50:49.276ZYES2021 Project PromotionsNOhttps://video.igem.org/w/en7gExsuCWDgxMmX8P4DiFhttps://video.igem.org/lazy-static/thumbnails/e593189c-7de8-4f2a-948e-2c9d2d145ac7.jpgShanghai_HS_ID: Pro-CASei: Bob's secret weapon (2021) - Project Promotion [English]**Title:** Pro-CASei: Bob's secret weapon **Description:** Our team decided to use CRISPR-Cas 9 to knock out the DNA segment coding (LSEI-2094) for Restriction Endonuclease, thus increasing the conversion rate of foreign DNA in Lactobacillus casei. This technology has immeasurable benefits to the scientific field and would advance all researches. [Wiki](https://2021.igem.org/Team:Shanghai_HS_ID)https://static.igem.org/peertube/streaming-playlists/hls/6c39492b-ad59-4fd0-8c58-a6d9c3bff6bd/8cacce49-fcb3-4fbc-96a9-a7a2618437a2-master.m3u8https://video.igem.org/videos/embed/en7gExsuCWDgxMmX8P4DiF1170262021-07-27T17:51:17.549ZYES2021 Project PromotionsNOhttps://video.igem.org/w/hJHLbpZ7h7tuAq5byb83Njhttps://video.igem.org/lazy-static/thumbnails/6ad69984-ea32-4e77-b21d-11000eda8145.jpgShanghai_HS_United: Engineered probiotics to degrade and absorb flavonoids (2021) - Project Promo...**Title:** Engineered probiotics to degrade and absorb flavonoids **Description:** Flavonoids have many medicinal properties but absorption of flavonoids in human gut is limited. So we constructed an engineered probiotics to secrete specific enzymes for converting and absorbing flavonoids, so that it can take full advantage of its benefits. [Wiki](https://2021.igem.org/Team:Shanghai_HS_United)https://static.igem.org/peertube/streaming-playlists/hls/87893187-5ffc-4e80-ac89-d339d9a06efe/1ab891a8-d672-41c9-91f7-d28b1e9c10b7-master.m3u8https://video.igem.org/videos/embed/hJHLbpZ7h7tuAq5byb83Nj930142021-07-27T17:51:37.376ZYES2021 Project PromotionsNOhttps://video.igem.org/w/ipV94guzvzVCXVe36SwPCthttps://video.igem.org/lazy-static/thumbnails/824e553b-011f-4051-b749-4b9e4933952d.jpgShanghai_Metro: Gene technology for protecting patented bacterial strains (2021) - Project Promot...**Warning:** This video contains wrong or mismatched captions. **Title:** Gene technology for protecting patented bacterial strains **Description:** We constructed a recombinant plasmid which could control the growth conditions after transforming into the target bacterial strain, namely the strain could hardly grow by improperly stolen, so as to protect the intellectual property of the patented bacterial strains from infringement. [Wiki](https://2021.igem.org/Team:Shanghai_Metro)https://static.igem.org/peertube/streaming-playlists/hls/8d023641-d294-4401-bd9f-47635107e3cf/8c9e43a4-34d1-47d6-bd36-ce9fb7dab2c1-master.m3u8https://video.igem.org/videos/embed/ipV94guzvzVCXVe36SwPCt1200222021-07-27T17:52:21.209ZYES2021 Project PromotionsNOhttps://video.igem.org/w/r285bZQdStghGcdRXRx354https://video.igem.org/lazy-static/thumbnails/c47cbb87-3c10-4813-aca2-3a38a18e2e83.jpgShanghai_Metro_HS: Silage additive for the gastrointestinal health of flocks and... (2021) - Proj...**Title:** Silage additive for the gastrointestinal health of flocks and herds **Description:** We use E.coli to produce high quality cellulase in vitro, which can be used as feed additive to promote the appetite and digestive ability of livestock, prevent and treat some common gastrointestinal diseases of livestock, and improve the quality of livestock products. [Wiki](https://2021.igem.org/Team:Shanghai_Metro_HS)https://static.igem.org/peertube/streaming-playlists/hls/ca9c9195-9c90-482d-8d4a-afdb11a4debb/38c16a5e-730b-42dc-b6cf-28fac31da199-master.m3u8https://video.igem.org/videos/embed/r285bZQdStghGcdRXRx3541160232021-07-27T17:52:47.343ZYES2021 Project PromotionsNOhttps://video.igem.org/w/ch1X8kC2pq6jFkNLBCUuqhhttps://video.igem.org/lazy-static/thumbnails/046bf96b-7b2c-4016-b8c5-6554e86cb0e8.jpgShanghai_Metropolis: Oral vaccine against HFMD (2021) - Project Promotion [English]**Title:** Oral vaccine against HFMD **Description:** EV71 virus is an important pathogenic factor of hand-foot-mouth disease in children. Therefore, we selected the main antigen gene VP1 of EV71 virus and constructed an oral live vaccine using lactic acid bacteria as vector to enhance the ability of infants to resist hand-foot-mouth disease [Wiki](https://2021.igem.org/Team:Shanghai_Metropolis)https://static.igem.org/peertube/streaming-playlists/hls/5b5102e5-ddea-4070-851c-8fea55dc1fb0/f601d535-b882-4637-b564-83d4ab6a7996-master.m3u8https://video.igem.org/videos/embed/ch1X8kC2pq6jFkNLBCUuqh8201222021-07-27T17:53:06.547ZYES2021 Project PromotionsNOhttps://video.igem.org/w/mq2cj2GHeYHpWo8Wn9mLFChttps://video.igem.org/lazy-static/thumbnails/6b15e6dd-c97d-47a8-8d49-3894bed70e18.jpgShanghai_Metro_Utd: In vitro production of Angiogenin and its interaction with h... (2021) - Proj...**Title:** In vitro production of Angiogenin and its interaction with heparan sulfate **Description:** We constructed a recombinant E. coli to in vitro produce ANG protein and further study the interaction between angiopoietin and heparin sulfate to provide support for clinical application and other drug development. [Wiki](https://2021.igem.org/Team:Shanghai_Metro_Utd)https://static.igem.org/peertube/streaming-playlists/hls/a5515c31-b979-458a-bb1f-c060db35f5ea/cb0a24cf-f4bf-46d6-bd18-395dbbd2784c-master.m3u8https://video.igem.org/videos/embed/mq2cj2GHeYHpWo8Wn9mLFC1150132021-07-27T17:53:32.134ZYES2021 Project PromotionsNOhttps://video.igem.org/w/oBWPv3ZEZGkXiGfdwzXMpRhttps://video.igem.org/lazy-static/thumbnails/24c49a59-f988-4a85-a0db-c1a5544a3324.jpgShanghaiTech_China: Stress sensitive biodegradable pharmaceutical cell-laden adh... (2021) - Proj...**Title:** Stress sensitive biodegradable pharmaceutical cell-laden adhesive hydrogel **Description:** This year ShanghaiTech_China is committed to using adhesive cell-laden hydrogel, which can be degraded through pressure-sensitive protein, to literally glue bones together. It could also release drugs on location, or even on demands. [Wiki](https://2021.igem.org/Team:ShanghaiTech_China)https://static.igem.org/peertube/streaming-playlists/hls/b72ddda9-76b2-4ef9-b15e-98c1172c5f23/abf3903a-312f-4b42-997c-9834020be2f0-master.m3u8https://video.igem.org/videos/embed/oBWPv3ZEZGkXiGfdwzXMpR12005332021-07-27T18:00:20.849Z#ShanghaiTech#ManufacturingYES2021 Project PromotionsNOhttps://video.igem.org/w/n7SuaEoTMxPTFxb7KApQR7https://video.igem.org/lazy-static/thumbnails/34e835f5-13e7-49f7-bfc8-69c5af819df3.jpgShanghai_United: Arsenic Biosenser (2021) - Project Promotion [English]**Title:** Arsenic Biosenser **Description:** Arsenic is a highly toxic carcinogen which is listed in the top of of toxic elements in pollution. We constructed recombinant E. coli as a biosensor that can detect arsenic in the environment and emit fluorescence in response, providing warnings and avoiding further harm from arsenic contamination. [Wiki](https://2021.igem.org/Team:Shanghai_United)https://static.igem.org/peertube/streaming-playlists/hls/ab057cc3-4f97-43bb-9eee-25caef4770f8/451ebe73-d2c9-43c0-9158-cc8634b4defb-master.m3u8https://video.igem.org/videos/embed/n7SuaEoTMxPTFxb7KApQR71120162021-07-27T18:00:41.944ZYES2021 Project PromotionsNOhttps://video.igem.org/w/fpq9Hk3TxvGqzH15Yec23Khttps://video.igem.org/lazy-static/thumbnails/a40ae221-2e3f-4675-bfc3-b0fe4e2fbab6.jpgShanghai_United_HS: Genetically engineered bacteria for the prevention and treat... (2021) - Proj...**Title:** Genetically engineered bacteria for the prevention and treatment of dental caries **Description:** Our project designed a genetically engineered probiotic bacteria, which can be induced by food monosaccharides in the mouth and secrete corresponding enzymes to kill harmful bacteria in the mouth in order to prevent also treat dental caries. [Wiki](https://2021.igem.org/Team:Shanghai_United_HS)https://static.igem.org/peertube/streaming-playlists/hls/74a4ee59-4428-42cf-ba28-5b30ef0efe4b/e4b58466-633b-40d9-9ed5-eef52c4f3718-master.m3u8https://video.igem.org/videos/embed/fpq9Hk3TxvGqzH15Yec23K990232021-07-27T18:01:59.817ZYES2021 Project PromotionsNOhttps://video.igem.org/w/5DwdFz1wHxjRQLo16ioMpThttps://video.igem.org/lazy-static/thumbnails/f8882ddf-211e-40f6-92b3-9d13822e70cf.jpgSHSBNU_China: CAROLINE (Commercial Adaptable Reusing Option for Ligand IoN in Ef... (2021) - Proj...**Title:** CAROLINE (Commercial Adaptable Reusing Option for Ligand IoN in Effluents) **Description:** This project is to design and develop a reusable device that is able to congregate the Ag+ ion in the industrial effluents. The device is comprised of a bacterial cellulose nanofiber structure module; an aptamer-cellulose linker protein module; and an aptamers-based ion binding module. [Wiki](https://2021.igem.org/Team:SHSBNU_China)https://static.igem.org/peertube/streaming-playlists/hls/25a1b271-3b7a-4900-999b-1853c343d55d/85d19611-efe9-4932-bd76-14fd428a0e0d-master.m3u8https://video.igem.org/videos/embed/5DwdFz1wHxjRQLo16ioMpT11903332021-07-27T18:02:53.090Z#Asia#High SchoolYES2021 Project PromotionsNOhttps://video.igem.org/w/4ScXb5JX5GBsLdxuqCxhudhttps://video.igem.org/lazy-static/thumbnails/5462f4b4-78ed-415a-961c-e6a2f822a0ff.jpgSiberia: LEAP2BRAIN (2021) - Project Promotion [English]**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** LEAP2BRAIN **Description:** This year, Team Siberia is planning to create a novel drug delivery system by combining the principles of living therapeutics and nose-to-brain delivery. This will allow them to treat obesity directly and efficiently. In order to induce weight loss, a special protein, LEAP2, must be periodically supplied directly to the brain. Following nasal administration, it can be delivered via the olfactory and trigeminal nerves, bypassing the bloodstream and the blood-brain barrier. Instagram @igem_siberia [Wiki](https://2021.igem.org/Team:Siberia)https://static.igem.org/peertube/streaming-playlists/hls/1f4df83f-252b-4b43-b271-eaf53faeb93c/ace7a1d2-3ec6-46b5-a0ec-79a46935633b-master.m3u8https://video.igem.org/videos/embed/4ScXb5JX5GBsLdxuqCxhud1190482021-07-27T18:16:40.698ZScienceObesityYES2021 Project PromotionsNOhttps://video.igem.org/w/gqokztgG9DCyq4k7JgFpcyhttps://video.igem.org/lazy-static/thumbnails/c0e767cf-edda-46ea-bb9c-4911d34c0879.jpgSJTang: UNTITLED (2021) - Project Promotion [English]**Title:** UNTITLED **Description:** Combining production optimization and quantitative carbon tracking, SJTang strives to achieve full-cycle carbon neutrality of biohydrogen production. [Wiki](https://2021.igem.org/Team:SJTang)https://static.igem.org/peertube/streaming-playlists/hls/7ce0b245-a77e-4439-b72d-ad0443e80d22/348204c1-894e-4524-a5f9-b8051ffd0dc1-master.m3u8https://video.igem.org/videos/embed/gqokztgG9DCyq4k7JgFpcy12103512021-07-27T18:16:42.033ZYES2021 Project PromotionsNOhttps://video.igem.org/w/o7uaVTpqo98B9jDFs1X2r4https://video.igem.org/lazy-static/thumbnails/0ae1801e-5cc2-4a24-857c-f0fd7c3a830e.jpgSJTU-BioX-Shanghai: Detection Blitz——New automatic developing system of assay kit (2021) - Projec...**Title:** Detection Blitz——New automatic developing system of assay kit **Description:** Unknown pathogens, ignored carcinogens, unheeded toxins, and rising health indices……new detection targets emerge from time to time. However, general detection methods are usually too complex and expensive, while handy assay kit that could be popularized always require a gigantic amount of early stage investment. The demand to balance the practicabilty and investment, so that they’re no longer the two sides of a coin, is tremendous. Yet, how can SJTU-BioX-Shanghai achieve such goal? [Wiki](https://2021.igem.org/Team:SJTU-BioX-Shanghai)https://static.igem.org/peertube/streaming-playlists/hls/b310dfcf-0bc6-4eed-ae1d-b790639d21e9/c5904a14-2a23-4e93-86d8-7ce99b21b587-master.m3u8https://video.igem.org/videos/embed/o7uaVTpqo98B9jDFs1X2r41170592021-07-27T18:17:16.569Z#rapid detctionYES2021 Project PromotionsNOhttps://video.igem.org/w/s6KuGhQbjJDT7dsgBtvwhHhttps://video.igem.org/lazy-static/thumbnails/928bc3a0-5fb0-4ba9-8632-976fb8666b99.jpgSJTU-Software: DNA Computation Platform (2021) - Project Promotion [English]**Title:** DNA Computation Platform **Description:** Our project hopes to assist researchers who interest in DNA computation for early cancer screening. By providing functions of data analysis and molecular simulations, our software will boost their research progress and reduce the workload. Since DNA computation requires years of experience, the accessibility of our softwares can help researchers of unrelated field eliminate much of hardship. [Wiki](https://2021.igem.org/Team:SJTU-Software)https://static.igem.org/peertube/streaming-playlists/hls/d35b20eb-75fd-4b41-a643-3702f1e944d9/ed679723-b438-4812-8152-e53f029d3054-master.m3u8https://video.igem.org/videos/embed/s6KuGhQbjJDT7dsgBtvwhH1200632021-07-27T18:17:42.067ZYES2021 Project PromotionsNOhttps://video.igem.org/w/v7wCbgMGWrr1snqpQW7Jjhhttps://video.igem.org/lazy-static/thumbnails/25884b0e-04dd-4d01-b0df-93c8f9ba9e7a.jpgSorbonne_U_Paris: Chlamy'N Space (2021) - Project Promotion [English]**Title:** Chlamy'N Space **Description:** Loop systems are studied for long-duration space travel. Chlamydomonas reinhardtii could be integrated into those systems to produce oxygen. To increase its lifespan we aim to make it more to resistant cosmic radiation that causes oxydative stress by making it express an antioxidant. [Wiki](https://2021.igem.org/Team:Sorbonne_U_Paris)https://static.igem.org/peertube/streaming-playlists/hls/ebc25b37-436e-45ee-a851-95824ea8551c/b6a599ba-8204-4af9-981f-ef100be72d96-master.m3u8https://video.igem.org/videos/embed/v7wCbgMGWrr1snqpQW7Jjh1170352021-07-27T18:18:14.266ZSPACEPHOTOTROPHYES2021 Project PromotionsNOhttps://video.igem.org/w/upYovchBs1QQDtJGojXKaahttps://video.igem.org/lazy-static/thumbnails/7d98c48b-969b-4b6b-ba28-15f182882ca1.jpgSorbonne_U_Paris: Chlamy'N Space (2021) - Project Promotion [French]**Title:** Chlamy'N Space **Description:** Loop systems are studied for long-duration space travel. Chlamydomonas reinhardtii could be integrated into those systems to produce oxygen. To increase its lifespan we aim to make it more to resistant cosmic radiation that causes oxydative stress by making it express an antioxidant. [Wiki](https://2021.igem.org/Team:Sorbonne_U_Paris)https://static.igem.org/peertube/streaming-playlists/hls/e618bd51-5973-44da-9fd4-60e1d6bf8c97/861105cd-6212-4fe3-a56a-57d231b4de56-master.m3u8https://video.igem.org/videos/embed/upYovchBs1QQDtJGojXKaa1110382021-07-27T18:18:44.215ZPHOTOTROPHSPACEYES2021 Project PromotionsNOhttps://video.igem.org/w/oN6HtTsLkU2x6WLTMdR6kJhttps://video.igem.org/lazy-static/thumbnails/e6788605-8ce8-4f0e-b5e1-8d7842a9a9ec.jpgSt_Andrews: Shinescreen (2021) - Project Promotion [English]**Title:** Shinescreen **Description:** Many sunscreens contain ecotoxic chemicals that harm corals and other marine species. To combat this, we aim to develop Shinescreen, a probiotic, marine friendly sunscreen. Nissle E. coli will be engineered to express Shinorine, a naturally occurring UV-absorbant, to provide full UVA protection. [Wiki](https://2021.igem.org/Team:St_Andrews)https://static.igem.org/peertube/streaming-playlists/hls/b898c93a-7a68-414a-be70-659789ad1a74/8e597c21-147d-45b3-8cf6-04785d410538-master.m3u8https://video.igem.org/videos/embed/oN6HtTsLkU2x6WLTMdR6kJ1200292021-07-27T18:19:15.774ZoceancoralsYES2021 Project PromotionsNOhttps://video.igem.org/w/2MVJ8QMumUtJ1VjK8YE42Dhttps://video.igem.org/lazy-static/thumbnails/6086331c-03a8-407f-8b4c-a3aaa30e49db.jpgStanford: Citrus Safe (2021) - Project Promotion [English]**Title:** Citrus Safe **Description:** Introducing Citrus Safe! The grapefruit-drug interaction is one of the most widely researched food-drug interactions. Despite the amount of information available, interactions between medications and grapefruit consumption can still cause major problems for many patients. Watch our promotional video to learn more about the grapefruit-drug interaction and our proposed solution of creating a gut shield against the negative compounds found in grapefruits. [Wiki](https://2021.igem.org/Team:Stanford)https://static.igem.org/peertube/streaming-playlists/hls/0e82b7ea-8ebf-4ed8-9fb8-0c6ec064bb5b/20baaf33-a154-435a-b6da-21231e95f799-master.m3u8https://video.igem.org/videos/embed/2MVJ8QMumUtJ1VjK8YE42D12001702021-07-27T18:19:16.897Z#citrussafe#grapefruitsYES2021 Project PromotionsNOhttps://video.igem.org/w/hxds15EBKjmSTWgZYuMkP1https://video.igem.org/lazy-static/thumbnails/6ce962a7-9036-4be6-b660-cdb9d2928143.jpgStockholm: MIKROSKIN (2021) - Project Promotion [English]**Title:** MIKROSKIN **Description:** The skin is our largest organ and at times the most confusing. iGEM Stockholm aims to create a rapid test, MIKROSKIN, that can show dysbiosis of the skin microbiota and monitor the treatment process. Let us get to the root of this problem for faster, cheaper, and less confusing treatment! [Wiki](https://2021.igem.org/Team:Stockholm)https://static.igem.org/peertube/streaming-playlists/hls/85edf26c-7023-4d30-813f-6d06792453da/38ba0c57-fdcd-46c9-ad5b-3878ad8e7849-master.m3u8https://video.igem.org/videos/embed/hxds15EBKjmSTWgZYuMkP112001632021-07-27T18:19:18.099ZskinmicrobiotaYES2021 Project PromotionsNOhttps://video.igem.org/w/fhv8Q2qE4yrtmckyqK7hoEhttps://video.igem.org/lazy-static/thumbnails/0e24718e-5904-41ef-9435-ec4953f97aa7.jpgStony_Brook: PAC-COLI: Bioremediation of Microcystin (2021) - Project Promotion [English]**Title:** PAC-COLI: Bioremediation of Microcystin **Description:** Microcystin, a toxin from cyanobacterial harmful algal blooms, contaminate lakes and pose a threat to both wildlife and human health. Project PAC-COLI aims to bioremediate drinking, lake and recreational water of Microcystin through genetic modification of E. coli. Watch to learn more! [Wiki](https://2021.igem.org/Team:Stony_Brook)https://static.igem.org/peertube/streaming-playlists/hls/73adcbef-509e-4d9a-8eb4-2b5d11c74382/ff3bc22a-3b5a-4859-8d92-b4d7167603eb-master.m3u8https://video.igem.org/videos/embed/fhv8Q2qE4yrtmckyqK7hoE1180232021-07-27T18:21:08.220ZALGALBLOOMSCYANOBACTERIAYES2021 Project PromotionsNOhttps://video.igem.org/w/b2sHkeLrRUeokMT9WjKeeBhttps://video.igem.org/lazy-static/thumbnails/beace3ca-5f88-40be-b769-4a235ba4a12c.jpgStuttgart: TardiSun - Innovative UV protection (2021) - Project Promotion [English]**Title:** TardiSun - Innovative UV protection **Description:** Welcome to our Promotion Video! This is Team Stuttgart, and our project was inspired by tardigrades. With their special protein Dsup, we want to reduce the damage caused by extreme UV radiation. Dsup – short for damage suppressor – is a DNA related protein. Through the expression in different cells, we want to increase their UV resistance and also create a surface protectant for several materials. [Wiki](https://2021.igem.org/Team:Stuttgart)https://static.igem.org/peertube/streaming-playlists/hls/512f97b4-e375-47d4-885e-f364574df201/f4fd6b3d-e35c-4e1d-9a90-ccff5596799b-master.m3u8https://video.igem.org/videos/embed/b2sHkeLrRUeokMT9WjKeeB1190212021-07-27T18:21:54.700ZYES2021 Project PromotionsNOhttps://video.igem.org/w/h4vrbSMacEdgkw4C3SN6hyhttps://video.igem.org/lazy-static/thumbnails/d9663438-71fb-4419-96e2-649952ff9926.jpgSUNY_Oneonta: SNflaPs (2021) - Project Promotion [English]**Title:** SNflaPs **Description:** Our project SNflaPs aims to develop a cost-effective, easy to use, field deployable device that has the ability to detect multiple genetic variants. Developing a genotype panel that dairy farmers can utilize to rapidly perform genetic testing on their cattle to facilitate selective breeding. [Wiki](https://2021.igem.org/Team:SUNY_Oneonta)https://static.igem.org/peertube/streaming-playlists/hls/820f96e1-b6a3-4085-991d-9231d81a3984/25a06eae-0ed3-49bf-ba5d-ce024bd7433d-master.m3u8https://video.igem.org/videos/embed/h4vrbSMacEdgkw4C3SN6hy1200532021-07-27T18:22:43.755ZdairyAgricultureYES2021 Project PromotionsNOhttps://video.igem.org/w/fBzYAP7K1AheR9YRnhoeKZhttps://video.igem.org/lazy-static/thumbnails/a693bdef-a31b-41f9-9448-7c0e093e0c5e.jpgSUNY_Oneonta: SNflaPs (2021) - Project Promotion [Spanish]**Title:** SNflaPs **Description:** Our project SNflaPs aims to develop a cost-effective, easy to use, field deployable device that has the ability to detect multiple genetic variants. Developing a genotype panel that dairy farmers can utilize to rapidly perform genetic testing on their cattle to facilitate selective breeding. [Wiki](https://2021.igem.org/Team:SUNY_Oneonta)https://static.igem.org/peertube/streaming-playlists/hls/7657e95c-10c8-4921-a44d-d64c5e401f9b/4afdd8e7-7d9f-4e66-881f-20b72f44a6fa-master.m3u8https://video.igem.org/videos/embed/fBzYAP7K1AheR9YRnhoeKZ1200132021-07-27T18:23:32.843ZdairyAgricultureYES2021 Project PromotionsNOhttps://video.igem.org/w/4Khi8unRKGKcFQg3L4ShNLhttps://video.igem.org/lazy-static/thumbnails/012ca629-c7cc-4857-9e54-97b866e65fff.jpgSUSTech_Shenzhen: Development of gut microbes to prevent diarrhea-related dehydr... (2021) - Proj...**Title:** Development of gut microbes to prevent diarrhea-related dehydration **Description:** The first part introduces the scenarios of our engineered bacteria which can prevent and treat diarrhea. The next part will show you how our system is designed and operated. And the last part is an interview with our group leader to summarize the significance and impact of our engineered bacteria. [Wiki](https://2021.igem.org/Team:SUSTech_Shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/1e5670c0-eb84-49c9-b160-b3262678eb58/3cbe291d-9e28-4979-86c2-e019bcba1fbe-master.m3u8https://video.igem.org/videos/embed/4Khi8unRKGKcFQg3L4ShNL1200502021-07-27T18:23:34.207ZdiarrheaengineeredbacteriaYES2021 Project PromotionsNOhttps://video.igem.org/w/hzvk7u2xpEu2HeQiozHrPKhttps://video.igem.org/lazy-static/thumbnails/d63c2759-6775-455c-8c28-aabaef2f3b7a.jpgSydney_Australia: Free Coli (2021) - Project Promotion [English]**Title:** Free Coli **Description:** We aim to engineer a naturally transformable lab strain of E.coli to lower the cost of cloning and improve global accessibility to synthetic biology. We will integrate the pilus formation and competence genes imported from the related bacterium Acinetobacter baylii ADP1 into the E. coli chromosome via homologous recombination, to create a recombinant that can take up DNA directly from the environment, eliminating the need for chemical treatment and heat shock. [Wiki](https://2021.igem.org/Team:Sydney_Australia)https://static.igem.org/peertube/streaming-playlists/hls/863fd682-3b98-4530-9b4e-c43649508bcd/23e64119-2a73-4f90-a1f1-79f2849d1127-master.m3u8https://video.igem.org/videos/embed/hzvk7u2xpEu2HeQiozHrPK1200602021-07-27T18:24:37.648ZYES2021 Project PromotionsNOhttps://video.igem.org/w/qRfZFj3VJ78Whfhe22CRXchttps://video.igem.org/lazy-static/thumbnails/e354a178-ae74-4375-92aa-c46d3055bf5f.jpgSYSU-CHINA: CRAFT (2021) - Project Promotion [English]**Title:** CRAFT **Description:** Team SYSU-CHINA this year plans to use Rational-designed circRNA scaffold to handle some practical problems. Different RNA binding proteins fused with a series of related enzymes are bound to specific sites on constructed circRNA so that the related biochemistry reaction can be accelerated. [Wiki](https://2021.igem.org/Team:SYSU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/c93c0362-adbb-4978-88d2-2a357d6237f5/4d5a0056-dd93-4ecd-8ce1-bfba06e51ef0-master.m3u8https://video.igem.org/videos/embed/qRfZFj3VJ78Whfhe22CRXc1190342021-07-27T18:25:52.026ZCIRCRNASCAFFOLDYES2021 Project PromotionsNOhttps://video.igem.org/w/hQ6myt2D2zavGQCwJSkVsXhttps://video.igem.org/lazy-static/thumbnails/a59be4ab-ed21-460d-862a-300a2992c567.jpgSYSU-Software: Phoebus: Platform Hinged Opto-controllable Elements to reBuild Un... (2021) - Proj...**Title:** Phoebus: Platform Hinged Opto-controllable Elements to reBuild Universal protein Subject **Description:** To study cellular activities, researches need to fine-tune the kinetic parameters of target bio-chemical process, which is always difficult because in given chassis organism, these parameters are intrinsic. So we build Phoebus, which guide users to rebuild target proteins into opto-controllable elements whose activity can be controlled with light. [Wiki](https://2021.igem.org/Team:SYSU-Software)https://static.igem.org/peertube/streaming-playlists/hls/88493826-4e45-40a2-949a-e7eb3bbb0a67/4bd4ed85-d594-4766-b55e-61a1334a8d2c-master.m3u8https://video.igem.org/videos/embed/hQ6myt2D2zavGQCwJSkVsX1200172021-07-27T18:26:37.055ZYES2021 Project PromotionsNOhttps://video.igem.org/w/4mCGZkJCF2ZDwC5d4zZq5qhttps://video.igem.org/lazy-static/thumbnails/d2fb00ac-ac3c-4dcb-99e9-112d768b0ecd.jpgSZPT-CHINA: Journey to the West (2021) - Project Promotion [English]**Title:** Journey to the West **Description:** During the fight between the Red Boy and Tang Tripitaker’s disciples, Pigsy was severely burnt by the Samadhi Fire, then the wounds were infected by P.aeruginosa. The iGEMer treated the burns with opto genetically modified A.Xylinus. Pigsy recovered at last, thanks to the iGEMer’s wonder drug. [Wiki](https://2021.igem.org/Team:SZPT-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/1b2ce9a5-e94e-4c0c-b8df-0440b39c5038/1cdac5d7-aaf2-4b6f-ae52-5be8f30fa817-master.m3u8https://video.igem.org/videos/embed/4mCGZkJCF2ZDwC5d4zZq5q11401352021-07-27T18:27:09.756ZtherapeuticschinaYES2021 Project PromotionsNOhttps://video.igem.org/w/oQRUmg4xM5CmMztpzopjjrhttps://video.igem.org/lazy-static/thumbnails/f9aa0719-7004-4db3-899f-3c47505a0d13.jpgSZ_SHD: AlphaGel (2021) - Project Promotion [English]**Title:** AlphaGel **Description:** Keratin digestion is highly demanded in the manufacturing industry and people's daily life. We aim to produce an α-gel to biodegrade keratins in our body hairs, a commercial hair removal product that can meet our customers' needs, such as safety and efficiency. [Wiki](https://2021.igem.org/Team:SZ_SHD)https://static.igem.org/peertube/streaming-playlists/hls/b8fb8149-e555-46dd-bc45-589c8871e18d/22651084-c09f-4113-a289-68f6fd2c89d7-master.m3u8https://video.igem.org/videos/embed/oQRUmg4xM5CmMztpzopjjr11609802021-07-27T18:27:10.848ZkeratinhairremovalYES2021 Project PromotionsNOhttps://video.igem.org/w/mPiiywXyKiewnnWBSMmqaBhttps://video.igem.org/lazy-static/thumbnails/478c4c66-5a55-4cd8-823c-61750070928e.jpgSZTA_RMG_Szeged: Cell-free diagnosis of Clear Cell Renal Cell Carcinoma from urine. (2021) - Proj...**Title:** Cell-free diagnosis of Clear Cell Renal Cell Carcinoma from urine. **Description:** In our project we get to know how to diagnose kidney cancer in a more effective and cheaper way with the help of dynabeads, toehold switch and fluorescent DNA test. In the promotional video we introduce our idea, the work phase, our school and the members of the team. [Wiki](https://2021.igem.org/Team:SZTA_RMG_Szeged)https://static.igem.org/peertube/streaming-playlists/hls/a89164c3-32d9-4c24-9aa0-f0b07003c67d/eff06b7d-d204-47de-8383-fdf9bb0c0d43-master.m3u8https://video.igem.org/videos/embed/mPiiywXyKiewnnWBSMmqaB1040362021-07-27T18:27:11.908ZkidneycancermicrornaYES2021 Project PromotionsNOhttps://video.igem.org/w/a5tYeSh3GczSACFNgtVFYThttps://video.igem.org/lazy-static/thumbnails/026d5fc5-508b-4738-8ea0-ed128ac72a47.jpgSZU-China: A platform for IBD adjuvant cocktail therapy based on engineered bact... (2021) - Proj...**Title:** A platform for IBD adjuvant cocktail therapy based on engineered bacteria **Description:** We focused on the treatment of IBD based on the knowledge of synthetic biology. We decided to use genetically modified engineered bacteria to carry out "cocktail" therapy for IBD from multiple perspectives, and finally build a health platform suitable for all intestinal microbiota related diseases. [Wiki](https://2021.igem.org/Team:SZU-China)https://static.igem.org/peertube/streaming-playlists/hls/498275bd-7cd7-42aa-8c66-b94427d74db7/0119ecaf-b47e-446c-9f1d-9e7af69fd3d6-master.m3u8https://video.igem.org/videos/embed/a5tYeSh3GczSACFNgtVFYT12001892021-07-27T18:27:56.732ZchinamanufacturingYES2021 Project PromotionsNOhttps://video.igem.org/w/9AfmQ1EFxSz5u3eNcE6d95https://video.igem.org/lazy-static/thumbnails/c93ae1ec-42c6-41b0-bec5-b02dc95892f6.jpgTAS_Taipei: UniversO (2021) - Project Promotion [English]**Title:** UniversO **Description:** TAS_Taipei presents UniversO: a modular, two step blood type conversion process. This video explains how we can mitigate blood type incompatibility and guarantee a continuous supply of type O blood. See how the team behind UniversO functions in and out of lockdown! [Wiki](https://2021.igem.org/Team:TAS_Taipei)https://static.igem.org/peertube/streaming-playlists/hls/45913f1f-2e4c-4e3d-8ce8-fc06c0379a8c/f500e9dc-9f15-4785-bde1-e881e68dba06-master.m3u8https://video.igem.org/videos/embed/9AfmQ1EFxSz5u3eNcE6d9510602622021-07-27T18:28:30.920ZBLOODTYPECONVERSIONDONATEBLOODYES2021 Project PromotionsNOhttps://video.igem.org/w/vnZ6B2YX9UJYRD6a2ys5mZhttps://video.igem.org/lazy-static/thumbnails/f65274c7-6b4b-461b-825d-02faa03bcf69.jpgTAU_Israel: Communique (2021) - Project Promotion [English]**Title:** Communique **Description:** Our project, Communique, is a technology which will allow us to take the genetic information passed on to bacterial communities and translate it to a language understood only by handpicked members of the community. This will selectively target specific species to express the gene of interest, while avoiding transfer of the genes to unwanted species within the community. [Wiki](https://2021.igem.org/Team:TAU_Israel)https://static.igem.org/peertube/streaming-playlists/hls/edead3cd-64a2-4531-8a52-64154fed34c1/b67c49d3-120c-434a-90c2-5b23cbf24bde-master.m3u8https://video.igem.org/videos/embed/vnZ6B2YX9UJYRD6a2ys5mZ11401022021-07-27T18:29:03.728ZYES2021 Project PromotionsNOhttps://video.igem.org/w/hCZ8KpWd3nttXouBo4yJ6Shttps://video.igem.org/lazy-static/thumbnails/7cf20b12-5a2d-45d9-afff-dabcc725b486.jpgTAU_Israel: Communique (2021) - Project Promotion [Spanish]**Title:** Communique **Description:** Our project, Communique, is a technology which will allow us to take the genetic information passed on to bacterial communities and translate it to a language understood only by handpicked members of the community. This will selectively target specific species to express the gene of interest, while avoiding transfer of the genes to unwanted species within the community. [Wiki](https://2021.igem.org/Team:TAU_Israel)https://static.igem.org/peertube/streaming-playlists/hls/86bc3440-7614-494a-8499-5667109211ec/415476b2-abfa-462c-be2c-3d41d9547514-master.m3u8https://video.igem.org/videos/embed/hCZ8KpWd3nttXouBo4yJ6S120032021-07-27T18:47:56.734ZYES2021 Project PromotionsNOhttps://video.igem.org/w/x9MLvLuf7jPeaRcqEBaszZhttps://video.igem.org/lazy-static/thumbnails/0e3c94b1-44a4-417d-bbaa-b164fd959fe6.jpgTAU_Israel: Communique (2021) - Project Promotion [Hebrew]**Title:** Communique **Description:** Our project, Communique, is a technology which will allow us to take the genetic information passed on to bacterial communities and translate it to a language understood only by handpicked members of the community. This will selectively target specific species to express the gene of interest, while avoiding transfer of the genes to unwanted species within the community. [Wiki](https://2021.igem.org/Team:TAU_Israel)https://static.igem.org/peertube/streaming-playlists/hls/fc45742d-dd16-415c-9e57-bfebf751d833/58a8f2f2-0a39-4163-b4eb-c60ea4d392f4-master.m3u8https://video.igem.org/videos/embed/x9MLvLuf7jPeaRcqEBaszZ1180152021-07-27T18:48:28.928ZYES2021 Project PromotionsNOhttps://video.igem.org/w/aUfyQtiUFRYs1yP5tk91aHhttps://video.igem.org/lazy-static/thumbnails/bfaf413f-a8b8-423d-97e4-d1db6d9c2d05.jpgTecCEM: Disrupting Disruptors (2021) - Project Promotion [English]**Title:** Disrupting Disruptors **Description:** This video talks about the impact our project would have if implemented on our community, giving a brief background regarding the lack of a reliable and fast method to detect Endocrine Disruptive Compounds (EDCs) and the dangerous amount of these chemicals found in drinking water. The video also mentions how we are solving these issues through the design of a biosensor for the detection of EDCs and the enzymatic degradation of these compounds through the expression of Laccase. [Wiki](https://2021.igem.org/Team:TecCEM)https://static.igem.org/peertube/streaming-playlists/hls/502de692-d8ac-4f06-b4a8-b7766376b203/0b2c082e-a95f-4326-9f36-c03f734279af-master.m3u8https://video.igem.org/videos/embed/aUfyQtiUFRYs1yP5tk91aH1190142021-07-27T18:49:17.453ZYES2021 Project PromotionsNOhttps://video.igem.org/w/rixMRHKhcNv3vQPGubGt9thttps://video.igem.org/lazy-static/thumbnails/719984b3-f463-443f-80bc-0218f3e83b46.jpgTEC_COSTA_RICA: Chronobacter (2021) - Project Promotion [English]**Title:** Chronobacter **Description:** Inspired by the endless possibilities synthetic biology offers, we decided to approach its real life limitations as inspiration. Our objective is to pursue an incipient focus on genetic circuit development based on sequential logic, entailing new functions and applications for engineered organisms. [Wiki](https://2021.igem.org/Team:TEC_COSTA_RICA)https://static.igem.org/peertube/streaming-playlists/hls/cce7b3c7-e658-47b4-ac0f-e5e7e87e7497/da9db1f3-1844-4f44-a038-3567689d20c2-master.m3u8https://video.igem.org/videos/embed/rixMRHKhcNv3vQPGubGt9t1200462021-07-27T18:49:56.781ZSOFTWAREKILLSWITCHYES2021 Project PromotionsNOhttps://video.igem.org/w/gNGrE3gK3fBjAZeeXpFwRGhttps://video.igem.org/lazy-static/thumbnails/032b0332-7279-4663-9216-cf51b40287b8.jpgTec-Monterrey: Diagnosgene (2021) - Project Promotion [English]**Title:** Diagnosgene **Description:** Farmers face problems in the production of alcoholic beverages due to the wilting of agave, a crucial element for Mexican culture, ethnic origin, and economy. The wilting of this species is originated by the fungi Fusarium oxysporum that causes necrosis in the plant. Diagnosgene is a fast, easy-to-use, and safe early detection system of Fusarium oxysporum which can be implemented on the field generating results of the diagnosis within hours. [Wiki](https://2021.igem.org/Team:Tec-Monterrey)https://static.igem.org/peertube/streaming-playlists/hls/7ffe3780-1f99-491b-950a-3d5cd43aca22/b2de7d24-1050-405d-bce4-ba02f3ea5c86-master.m3u8https://video.igem.org/videos/embed/gNGrE3gK3fBjAZeeXpFwRG1110432021-07-27T18:49:57.897ZAgricultureAgaveYES2021 Project PromotionsNOhttps://video.igem.org/w/i2HFKD9yGAaCHa9kPaRzAjhttps://video.igem.org/lazy-static/thumbnails/76bbbf90-1376-48fd-9433-c1a54a0423ae.jpgTec-Monterrey: Diagnosgene (2021) - Project Promotion [Spanish]**Title:** Diagnosgene **Description:** Farmers face problems in the production of alcoholic beverages due to the wilting of agave, a crucial element for Mexican culture, ethnic origin, and economy. The wilting of this species is originated by the fungi Fusarium oxysporum that causes necrosis in the plant. Diagnosgene is a fast, easy-to-use, and safe early detection system of Fusarium oxysporum which can be implemented on the field generating results of the diagnosis within hours. [Wiki](https://2021.igem.org/Team:Tec-Monterrey)https://static.igem.org/peertube/streaming-playlists/hls/89e8ca5f-a776-456e-9abb-6b9806f97ec2/eb33db77-1597-4d59-91d7-4103a65efcee-master.m3u8https://video.igem.org/videos/embed/i2HFKD9yGAaCHa9kPaRzAj1110102021-07-27T18:51:08.677ZAgricultureAgaveYES2021 Project PromotionsNOhttps://video.igem.org/w/iWNUZXtGS842tkCCKWLU1phttps://video.igem.org/lazy-static/thumbnails/e5842c03-c6cd-4772-8cb3-74ee3f004c95.jpgThessaloniki: MiRNA Expression Toehold Investigation System (2021) - Project Promotion [English]**Warning:** This video contains wrong or mismatched captions. **Title:** MiRNA Expression Toehold Investigation System **Description:** METIS is a cost-effective, non-invasive diagnostic kit for the early detection of Pancreatic Ductal Adenocarcinoma. Our system is based on the detection of miRNA molecules that are upregulated in the urine of patients with PDAC at the stages I and II. For the detection of these molecules, we are using Toehold Switches, RNA sequences that lead to the production of a signal, in the presence of the miRNAs. [Wiki](https://2021.igem.org/Team:Thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/91526eb4-a7e7-4788-ab22-a18b81d6a587/603f5e51-57f8-4cf0-9824-763a58f12189-master.m3u8https://video.igem.org/videos/embed/iWNUZXtGS842tkCCKWLU1p1020522021-07-27T18:51:09.627ZYES2021 Project PromotionsNOhttps://video.igem.org/w/tAeeWve8DHy59vTeKDnDqShttps://video.igem.org/lazy-static/thumbnails/855fa919-b9e5-4c31-9125-1df940de00cd.jpgThessaloniki: MiRNA Expression Toehold Investigation System (2021) - Project Promotion [Greek]**Warning:** This video contains wrong or mismatched captions. **Title:** MiRNA Expression Toehold Investigation System **Description:** METIS is a cost-effective, non-invasive diagnostic kit for the early detection of Pancreatic Ductal Adenocarcinoma. Our system is based on the detection of miRNA molecules that are upregulated in the urine of patients with PDAC at the stages I and II. For the detection of these molecules, we are using Toehold Switches, RNA sequences that lead to the production of a signal, in the presence of the miRNAs. [Wiki](https://2021.igem.org/Team:Thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/df6e310f-eb8c-4a8d-9279-c56e067bec0e/858fce58-2727-46ed-a2c1-864342f6ad99-master.m3u8https://video.igem.org/videos/embed/tAeeWve8DHy59vTeKDnDqS1020132021-07-27T18:51:10.562ZYES2021 Project PromotionsNOhttps://video.igem.org/w/j6V7ysqrqYU6A7gm2df7DAhttps://video.igem.org/lazy-static/thumbnails/2185cc1d-0b26-46c7-a013-6d24b7b53d18.jpgThessaly: AMALTHEA: From Microbiome Engineering to Human Well-being. (2021) - Project Promotion [...**Title:** AMALTHEA: From Microbiome Engineering to Human Well-being **Description:** AMALTHEA 2021 aims to bring light into the crucial role of the gut microbiome in regulating metabolic and gut health, providing a personalized dietary pattern. Join us in our journey of providing a holistic approach for early prevention of dysbiosis and strengthening of the bacterial gut community. [Wiki](https://2021.igem.org/Team:Thessaly)https://static.igem.org/peertube/streaming-playlists/hls/9297f263-fef9-4c4e-88c7-fa8c02cd606c/f802b31a-c2ca-4985-8d0a-82ccb8930360-master.m3u8https://video.igem.org/videos/embed/j6V7ysqrqYU6A7gm2df7DA12001052021-07-27T18:52:00.801ZAMALTHEAYES2021 Project PromotionsNOhttps://video.igem.org/w/de13AtUuuDSyAfoAXfijUjhttps://video.igem.org/lazy-static/thumbnails/243221de-d2a6-432f-bf5c-bf538229fe72.jpgThessaly: AMALTHEA: From Microbiome Engineering to Human Well-being. (2021) - Project Promotion [...**Title:** AMALTHEA: From Microbiome Engineering to Human Well-being **Description:** AMALTHEA 2021 aims to bring light into the crucial role of the gut microbiome in regulating metabolic and gut health, providing a personalized dietary pattern. Join us in our journey of providing a holistic approach for early prevention of dysbiosis and strengthening of the bacterial gut community. [Wiki](https://2021.igem.org/Team:Thessaly)https://static.igem.org/peertube/streaming-playlists/hls/62fe5c49-8f4a-4157-8c6f-13902e036eca/fbc43bd6-91fa-435f-8788-47eef0f22e93-master.m3u8https://video.igem.org/videos/embed/de13AtUuuDSyAfoAXfijUj120082021-07-27T18:52:02.115ZAMALTHEAYES2021 Project PromotionsNOhttps://video.igem.org/w/p5gcw67X6wDmiwNyhbNrsXhttps://video.igem.org/lazy-static/thumbnails/1f889371-ebbe-4c07-98ab-fe2230756c9c.jpgThessaly: AMALTHEA: From Microbiome Engineering to Human Well-being. (2021) - Project Promotion [...**Title:** AMALTHEA: From Microbiome Engineering to Human Well-being **Description:** AMALTHEA 2021 aims to bring light into the crucial role of the gut microbiome in regulating metabolic and gut health, providing a personalized dietary pattern. Join us in our journey of providing a holistic approach for early prevention of dysbiosis and strengthening of the bacterial gut community. [Wiki](https://2021.igem.org/Team:Thessaly)https://static.igem.org/peertube/streaming-playlists/hls/bada87dd-e1ec-43d0-9f09-bd64a1ac196f/5254168a-554a-4cf4-9c08-fa8c74f9d175-master.m3u8https://video.igem.org/videos/embed/p5gcw67X6wDmiwNyhbNrsX120042021-07-27T18:52:03.446ZAMALTHEAYES2021 Project PromotionsNOhttps://video.igem.org/w/u4Mq3tq3iYvkXGwF3FhuBvhttps://video.igem.org/lazy-static/thumbnails/250613e6-8fa1-4e91-b1ed-8c4d4f891261.jpgThessaly: AMALTHEA: From Microbiome Engineering to Human Well-being. (2021) - Project Promotion [...**Title:** AMALTHEA: From Microbiome Engineering to Human Well-being **Description:** AMALTHEA 2021 aims to bring light into the crucial role of the gut microbiome in regulating metabolic and gut health, providing a personalized dietary pattern. Join us in our journey of providing a holistic approach for early prevention of dysbiosis and strengthening of the bacterial gut community. [Wiki](https://2021.igem.org/Team:Thessaly)https://static.igem.org/peertube/streaming-playlists/hls/e34719fb-0ec0-4913-a2ba-8cbd82b863eb/6be82e25-6cbf-4be0-9961-d44513746836-master.m3u8https://video.igem.org/videos/embed/u4Mq3tq3iYvkXGwF3FhuBv120062021-07-27T18:52:04.728ZAMALTHEAYES2021 Project PromotionsNOhttps://video.igem.org/w/wuppDjW3FcxrM6hyExHXoPhttps://video.igem.org/lazy-static/thumbnails/4eb49793-9482-4e46-b977-0eda63cdf9a5.jpgThe_Webb_Schools: The lighthouse - Probiotic bacteria for comforting depressed p... (2021) - Proj...**Title:** The lighthouse - Probiotic bacteria for comforting depressed patients **Description:** MDA level is found to be increased in depressed patients as a marker for cells oxidative stress. Our solution is to introduce peroxidase EfeB to decrease oxidative stress within cells, thereby inhibiting MDA production. So, Elummy is created, to give comfort to the people who suffer from depression. [Wiki](https://2021.igem.org/Team:The_Webb_Schools)https://static.igem.org/peertube/streaming-playlists/hls/f6e9692c-7c0b-4398-9d20-4f95f02b45ff/e9be3fef-8261-46a6-a327-72139c1fe59e-master.m3u8https://video.igem.org/videos/embed/wuppDjW3FcxrM6hyExHXoP1200152021-07-27T18:53:27.396ZYES2021 Project PromotionsNOhttps://video.igem.org/w/m84UzewU64GfTb2Ww2p7h9https://video.igem.org/lazy-static/thumbnails/9b0a6783-d0ee-4c1f-919e-228542237e24.jpgThink_Edu_China: Debiotics (2021) - Project Promotion [English]**Warning:** This video has no captions. **Title:** Debiotics **Description:** Currently, the increasing antibiotics resistance slowly becomes a global concern. Thus, this promotion videos attempts to raise the awernemess of this problem of antibiotics abuses mainly in poultry industry and attempt to cease the continuing negative impacts on the environment. [Wiki](https://2021.igem.org/Team:Think_Edu_China)https://static.igem.org/peertube/streaming-playlists/hls/a2f36313-4e16-4086-9538-c03db22a9de8/f79fbb39-5c65-40d2-8f33-84e2046633b5-master.m3u8https://video.igem.org/videos/embed/m84UzewU64GfTb2Ww2p7h91140412021-07-27T18:53:58.545ZYES2021 Project PromotionsNOhttps://video.igem.org/w/sf31XTGTek8m4y2MUn2zyfhttps://video.igem.org/lazy-static/thumbnails/3aaf3965-321b-4a3f-8286-8aef061547a5.jpgTHIS-China: Dental Plaque Detection (2021) - Project Promotion [English]**Title:** Dental Plaque Detection **Description:** The goal of our project is to produce a dental bacteria (S mutants) detection device. We are building a sensor cell, using CSP as a message, to activate chromoprotein that causes the color to be degraded or presented. Therefore, detecting the bacteria in the patient's mouth. [Wiki](https://2021.igem.org/Team:THIS-China)https://static.igem.org/peertube/streaming-playlists/hls/d48342be-b793-409a-babd-ba7d6a0eb3aa/7276dc5c-44da-4b1d-b4cb-346da8bb377c-master.m3u8https://video.igem.org/videos/embed/sf31XTGTek8m4y2MUn2zyf1110242021-07-27T18:53:59.637ZYES2021 Project PromotionsNOhttps://video.igem.org/w/b6Ck22VmCbxcbTzco4557Dhttps://video.igem.org/lazy-static/thumbnails/0f3ba5df-ac82-4ce5-949e-dbd1ea3e11b5.jpgThrace: SaliCa (2021) - Project Promotion [English]**Title:** SaliCa **Description:** Colorectal cancer is one of the most common forms of cancer. That’s why we are creating SaliCa: a device that can screen for colorectal cancer. It works by detecting biomarkers found in saliva. Thus, SaliCa provides an inexpensive and noninvasive method for early diagnosis of colorectal cancer. [Wiki](https://2021.igem.org/Team:Thrace)https://static.igem.org/peertube/streaming-playlists/hls/51c47e49-89b8-4214-a818-ef90e2dcbbe1/e85b84b5-61f8-4ef4-a42c-635c93d1dfbb-master.m3u8https://video.igem.org/videos/embed/b6Ck22VmCbxcbTzco4557D1200562021-07-27T18:54:00.699ZsalivacancerYES2021 Project PromotionsNOhttps://video.igem.org/w/fBhJRd7irTLZTm7BPynGakhttps://video.igem.org/lazy-static/thumbnails/39ff21c1-4a0b-426b-87f1-bee7a49d3c6c.jpgTianjin: A chromosome-free eukaryotic cell (2021) - Project Promotion [English]**Title:** A chromosome-free eukaryotic cell **Description:** Tianjin team demonstrated CREATE, a kind of eukaryotic cell that removes chromosomes. As it gets rid of the chromosomes, it has other functions, such as good biological safety. Thus, it can be applied to drug delivery and large DNA fragments transfer and other aspects. [Wiki](https://2021.igem.org/Team:Tianjin)https://static.igem.org/peertube/streaming-playlists/hls/764d49f0-2aa5-496a-b320-63a5b17f9f25/5e7df46c-3518-4a99-be3b-0e57d291fbd7-master.m3u8https://video.igem.org/videos/embed/fBhJRd7irTLZTm7BPynGak1140462021-07-27T18:54:30.814ZYES2021 Project PromotionsNOhttps://video.igem.org/w/3zR8xQ4UFzapz29unCERAehttps://video.igem.org/lazy-static/thumbnails/1518d87c-d19b-41d5-9098-6afc40af5b86.jpgTJUSLS_China: PET-CRUSHER (2021) - Project Promotion [English]**Title:** PET-CRUSHER **Description:** PETase has the highest degradation activity of highly crystallized PET but its low stability limits its efficiency. We accordingly modify PETase with a series of rational engineering strategy to enhance its stability and therefore improve degradation efficiency. [Wiki](https://2021.igem.org/Team:TJUSLS_China)https://static.igem.org/peertube/streaming-playlists/hls/14ec1969-32cb-44de-91e2-7a58f3825bf5/32d0f94d-d789-42fa-8c0b-85a33a119588-master.m3u8https://video.igem.org/videos/embed/3zR8xQ4UFzapz29unCERAe1200422021-07-27T18:55:01.177ZPETEnvironmnetYES2021 Project PromotionsNOhttps://video.igem.org/w/8EVGtaUtvGGL39wMivJHeNhttps://video.igem.org/lazy-static/thumbnails/7b966c3d-a14d-484f-9d83-99c1a206c19a.jpgTKS_International: The Root of the Problem (2021) - Project Promotion [English]**Title:** The Root of the Problem **Description:** Since the 1930s, we've been relying on chemical fertilizers for large-scale crop production. However, these fertilizers cause eutrophication, greenhouse gas emissions, and the depletion of soil fertility. The world population is projected to increase by 2 billion in 2050 and we can't keep sustaining ourselves in this unsustainable way. At TKS_International, we are growing a future where no human goes hungry, without starving our planet. [Wiki](https://2021.igem.org/Team:TKS_International)https://static.igem.org/peertube/streaming-playlists/hls/3e1f5387-4a53-4630-9218-585a9395d324/b6ca8108-b40f-4b4a-ad5f-6444ad266e3a-master.m3u8https://video.igem.org/videos/embed/8EVGtaUtvGGL39wMivJHeN1200342021-07-27T18:55:57.162ZBiofertilizerAgtechYES2021 Project PromotionsNOhttps://video.igem.org/w/esZrmGRGnn1Zsq87A3aC47https://video.igem.org/lazy-static/thumbnails/a1fb8641-d106-467b-8ae8-2f24e14bfc18.jpgTokyoTech: Lacteeth (2021) - Project Promotion [English]**Title:** Lacteeth **Description:** Our project aims to develop new probiotics that continuously prevent dental caries with engineered Lactococcus lactis. We designed Lactococcus lactis which is able to bind specifically to biofilm and diffuse growth inhibitors against bacteria causing dental caries. We hope that our project contributes to the world without dental caries. [Wiki](https://2021.igem.org/Team:TokyoTech)https://static.igem.org/peertube/streaming-playlists/hls/6d0b899b-4335-4598-b36b-fe64ecea9d8c/0c63b5a9-82dd-47f5-bdc4-437e860903da-master.m3u8https://video.igem.org/videos/embed/esZrmGRGnn1Zsq87A3aC471160952021-07-27T18:56:55.764ZprobioticsYES2021 Project PromotionsNOhttps://video.igem.org/w/1wRujvsqeZpjSg33fu1fQdhttps://video.igem.org/lazy-static/thumbnails/30636598-1f2b-457e-baf0-5810174ce315.jpgTongji_China: LOoK! (Little Odor Killer) (2021) - Project Promotion [English]**Title:** LOoK! (Little Odor Killer) **Description:** The odor generated by kitchen waste not only harms our health, but also affects the recycling of resources. The main smelly chemical molecules in odor are hydrogen sulfide and ammonia. We are working hard to construct two odor treatment systems by transforming related metabolic enzymes into E. coli. Let this mini odor treatment plant help us build a clean and comfortable earth! [Wiki](https://2021.igem.org/Team:Tongji_China)https://static.igem.org/peertube/streaming-playlists/hls/044ecfb2-ef10-4436-b1c3-9fcc83f353e4/704dee11-942b-475e-ad15-7d0a1ce59f85-master.m3u8https://video.igem.org/videos/embed/1wRujvsqeZpjSg33fu1fQd1060492021-07-27T18:59:10.082Zkitchen wasteodor killerYES2021 Project PromotionsNOhttps://video.igem.org/w/hCHD2AAitBnumnyUab5LDZhttps://video.igem.org/lazy-static/thumbnails/14f72cd0-fdea-42af-9155-61bcb9a15853.jpgTongji_Software: Phage-MAP (2021) - Project Promotion [English]**Title:** Phage-MAP **Description:** We try to establish an interactive map called Phage-MAP, which demonstrates the potentially interactive relationship between phage and bacteria. It is conducive to select specific phage or phage combinations to achieve precise treatment to a certain superbug. [Wiki](https://2021.igem.org/Team:Tongji_Software)https://static.igem.org/peertube/streaming-playlists/hls/86b2a7a4-d6f0-46cb-9b41-61863d6a32ab/f3196d7b-526f-47f8-8e9c-6049ba738b04-master.m3u8https://video.igem.org/videos/embed/hCHD2AAitBnumnyUab5LDZ1140842021-07-27T18:59:54.915ZYES2021 Project PromotionsNOhttps://video.igem.org/w/8QuTT9pE784FakJrccZLYBhttps://video.igem.org/lazy-static/thumbnails/e244f1be-bf9c-4f36-a0cc-e47f0aaad7f9.jpgToronto: PET3: Machine Learning and Rosetta Guided Design of Efficient Plastic D... (2021) - Proj...**Title:** PET3: Machine Learning and Rosetta Guided Design of Efficient Plastic Degrading Enzymes **Description:** Plastics are useful materials that we use in the devices and tools we use in our daily lives, but our widespread usage of plastic comes at a cost. The problem of plastic waste has worsened over the pandemic. However, iGEM Toronto is developing a solution with methods in synthetic biology to recycle PET plastic, which could allow communities to recycle PET plastic an indefinite number of times. [Wiki](https://2021.igem.org/Team:Toronto)https://static.igem.org/peertube/streaming-playlists/hls/3f757a7c-25a6-4b85-935f-386bc11e55bb/833756b3-6a61-4911-94bf-bf7661d72de9-master.m3u8https://video.igem.org/videos/embed/8QuTT9pE784FakJrccZLYB910792021-07-27T19:00:44.829ZPETaseprotein engineeringYES2021 Project PromotionsNOhttps://video.igem.org/w/dVKw4vWtmtzMZGVwHpKofghttps://video.igem.org/lazy-static/thumbnails/cd8b2516-f603-4ac4-b373-35c750cb82d8.jpgToulouse_INSA-UPS: ELIXIO (2021) - Project Promotion [English]**Title:** ELIXIO **Description:** Perfumes are everywhere. Some scents cannot be extracted from their original flowers, the mute flowers. One of them is the violet, the symbol of Toulouse. ELIXIO aims to give back its voice to the violet. We designed a microbial consortium between two organisms to produce sustainable fragrances. [Wiki](https://2021.igem.org/Team:Toulouse_INSA-UPS)https://static.igem.org/peertube/streaming-playlists/hls/68aee71f-a9c3-47f3-88f8-0c1b903e521b/00937730-611b-402b-89c8-c01a4f5df2cf-master.m3u8https://video.igem.org/videos/embed/dVKw4vWtmtzMZGVwHpKofg120023872021-07-27T19:01:31.927ZphototrophperfumeYES2021 Project PromotionsNOhttps://video.igem.org/w/ayDtLFdbxaCBPky7DuBYH3https://video.igem.org/lazy-static/thumbnails/b3dfddd9-4bd5-4461-b605-0ef9e5242ea7.jpgTsinghua: GUT MATTERS. Multiprobiotic Therapy and Diagnostic Tool for IBD (2021) - Project Promot...**Title:** GUT MATTERS, Multiprobiotic Therapy and Diagnostic Tool for IBD **Description:** Inflammatory Bowel Disease, or IBD, is a currently increasing but incurable disease. Lifelong dietary restriction and medication severely impact the life quality of IBD patients. Can synthetic biology offer a new solution? Tsinghua iGEM 2021 team aims to develop a diagnostic tool and a novel biotherapy for IBD using engineered proteins and probiotics. We hope that our efforts can bring new light to the fight against IBD. E-mails: jeremyliu755@foxmail.com [Wiki](https://2021.igem.org/Team:Tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/4d71254d-3bcb-446d-926e-e2d28a01d504/6abbbc9f-3c85-4670-9cb1-ad4db80e1e30-master.m3u8https://video.igem.org/videos/embed/ayDtLFdbxaCBPky7DuBYH31170622021-07-27T19:01:32.902ZIBDYES2021 Project PromotionsNOhttps://video.igem.org/w/tcDrd5NsxH9ZNLZddPCRpohttps://video.igem.org/lazy-static/thumbnails/217174d4-1807-455e-a053-fe244ac0f439.jpgTU_Darmstadt: PHIRE BYRD: Phage mediated Immune Response by Recognizing Defensiv... (2021) - Proj...**Title:** PHIRE BYRD: Phage mediated Immune Response by Recognizing Defensive Sleeper Cells **Description:** Multi drug resistant pathogens and resilient biofilms are a problem in multiple areas. We want to use B. subtilis as biofilm-forming host organism to automatically sense pathogens, which triggers the production of lytic bacteriophages. This way we want to create a modular, easily expandable system. [Wiki](https://2021.igem.org/Team:TU_Darmstadt)https://static.igem.org/peertube/streaming-playlists/hls/dc46fec5-490c-44ec-b0c4-56ab98078dc0/751b0327-3760-4aeb-9485-82e2b43d0ac4-master.m3u8https://video.igem.org/videos/embed/tcDrd5NsxH9ZNLZddPCRpo11901562021-07-27T19:03:26.041ZPhagesB.SubtilisYES2021 Project PromotionsNOhttps://video.igem.org/w/wet5194egUCbH7ay4ka6bQhttps://video.igem.org/lazy-static/thumbnails/5e38f085-941a-43f4-b0e6-101a1b231228.jpgTUDelft: AptaVita (2021) - Project Promotion [English]**Title:** AptaVita **Description:** Vitamin deficiencies, also known as “Hidden Hunger”, impact the health and quality of life of people around the world, particularly in Sub-Saharan Africa and South Asia. Insufficient data on its occurrence impedes developing proper strategies against it. Therefore, TU Delft iGEM 2021 is developing AptaVita: a modular, cheap, and quantitative paper-based test that allows detecting vitamin deficiencies at the point-of-care using RNA biosensors and colorimetric readouts through a cell-free system. [Wiki](https://2021.igem.org/Team:TUDelft)https://static.igem.org/peertube/streaming-playlists/hls/f4d382bb-c859-486f-827d-e232daaa0720/0d4978cd-f62c-4b91-aab5-e718b16942bd-master.m3u8https://video.igem.org/videos/embed/wet5194egUCbH7ay4ka6bQ12005972021-07-27T19:09:42.129ZYES2021 Project PromotionsNOhttps://video.igem.org/w/ekQjLqsVUvBdw6xqiKTBbjhttps://video.igem.org/lazy-static/thumbnails/1c4fbfbf-6ed8-4192-8684-2aae5b762074.jpgTUDelft: AptaVita (2021) - Project Promotion [Dutch]**Title:** AptaVita **Description:** Vitamin deficiencies, also known as “Hidden Hunger”, impact the health and quality of life of people around the world, particularly in Sub-Saharan Africa and South Asia. Insufficient data on its occurrence impedes developing proper strategies against it. Therefore, TU Delft iGEM 2021 is developing AptaVita: a modular, cheap, and quantitative paper-based test that allows detecting vitamin deficiencies at the point-of-care using RNA biosensors and colorimetric readouts through a cell-free system. [Wiki](https://2021.igem.org/Team:TUDelft)https://static.igem.org/peertube/streaming-playlists/hls/6c0bb6f3-ab2f-497f-b878-a8881578aa0a/f3cbbbe6-a74e-446f-ac6a-521cff0e7909-master.m3u8https://video.igem.org/videos/embed/ekQjLqsVUvBdw6xqiKTBbj1200252021-07-27T19:09:43.305ZYES2021 Project PromotionsNOhttps://video.igem.org/w/hrW6c28XNb1paxUTGm8Ho4https://video.igem.org/lazy-static/thumbnails/fdbbfd96-ebc7-4a93-b427-22fc1f7f3e66.jpgTUDelft: AptaVita (2021) - Project Promotion [Spanish]**Title:** AptaVita **Description:** Vitamin deficiencies, also known as “Hidden Hunger”, impact the health and quality of life of people around the world, particularly in Sub-Saharan Africa and South Asia. Insufficient data on its occurrence impedes developing proper strategies against it. Therefore, TU Delft iGEM 2021 is developing AptaVita: a modular, cheap, and quantitative paper-based test that allows detecting vitamin deficiencies at the point-of-care using RNA biosensors and colorimetric readouts through a cell-free system. [Wiki](https://2021.igem.org/Team:TUDelft)https://static.igem.org/peertube/streaming-playlists/hls/8531258a-0f49-4bc3-b9b2-0f824f2842db/68ed24f2-ff21-49da-9e7e-bba39ae13d9c-master.m3u8https://video.igem.org/videos/embed/hrW6c28XNb1paxUTGm8Ho4120092021-07-27T19:09:44.401ZYES2021 Project PromotionsNOhttps://video.igem.org/w/2tJHGVfwA1m9TpGuYxMsfyhttps://video.igem.org/lazy-static/thumbnails/888ead92-c32a-40de-9c55-b88653fd42ea.jpgTuebingen: AMP^3 (2021) - Project Promotion [English]**Title:** AMP^3 **Description:** What would you do, if you want to treat a common bacterial infection? Well, antibiotics seem to be the drug of choice. But with arising antimicrobial resistance, this weapon becomes increasingly harmless. Watch the video to find out how Team Tübingen wants to tackle this problem! [Wiki](https://2021.igem.org/Team:Tuebingen)https://static.igem.org/peertube/streaming-playlists/hls/0bf88c08-987b-445c-9d3c-475e178e99ec/82dca1b6-cead-4949-b3db-4237d0fe478f-master.m3u8https://video.igem.org/videos/embed/2tJHGVfwA1m9TpGuYxMsfy1200862021-07-27T19:09:45.490ZAMPsantibioticsYES2021 Project PromotionsNOhttps://video.igem.org/w/cfTWQ3uYK7t1cJKmDm5KWUhttps://video.igem.org/lazy-static/thumbnails/c91b97f4-7810-414f-9114-188ded6f089f.jpgTU-Eindhoven: IBDetection (2021) - Project Promotion [English]**Title:** IBDetection **Description:** As team iGEM Eindhoven 2021, we would like to improve the monitoring procedure of Inflammatory Bowel Disease by developing safe genetically engineered E.coli bacteria that can detect and quantitatively report chronic inflammations in the intestine with conventional ultrasound equipment. [Wiki](https://2021.igem.org/Team:TU-Eindhoven)https://static.igem.org/peertube/streaming-playlists/hls/5b28f352-8bbf-49cb-a0fc-af44d9e92ffc/db2e8f7f-aeea-44b1-958d-f830edc84f9e-master.m3u8https://video.igem.org/videos/embed/cfTWQ3uYK7t1cJKmDm5KWU990742021-07-27T19:10:16.724Z#DIAGNOSTICS#EUROPEYES2021 Project PromotionsNOhttps://video.igem.org/w/5FyZZbR16rEGZTqUXaZZyMhttps://video.igem.org/lazy-static/thumbnails/fdcdcef0-136c-4bae-89ef-9fc5d552990f.jpgTU_Kaiserslautern: MoCloMania (2021) - Project Promotion [English]**Title:** MoCloMania **Description:** Most proteins are produced in common lab organisms. For many proteins this works just fine, but some need further modifications that many hosts struggle to recreate. These modifications are essential for protein functionality. Check out our video to find out about our solution to this problem! [Wiki](https://2021.igem.org/Team:TU_Kaiserslautern)https://static.igem.org/peertube/streaming-playlists/hls/25eae603-ad18-437e-8b24-b9016e7d0049/46738700-567d-4d7f-b908-e31fb9bd66c3-master.m3u8https://video.igem.org/videos/embed/5FyZZbR16rEGZTqUXaZZyM1200312021-07-27T19:10:17.994ZYES2021 Project PromotionsNOhttps://video.igem.org/w/nPZk4a7Ua9By13ndstwfSUhttps://video.igem.org/lazy-static/thumbnails/54b2def4-0d92-425e-aef7-25ad60f072da.jpgTU_Kaiserslautern: MoCloMania (2021) - Project Promotion [German]**Title:** MoCloMania **Description:** Most proteins are produced in common lab organisms. For many proteins this works just fine, but some need further modifications that many hosts struggle to recreate. These modifications are essential for protein functionality. Check out our video to find out about our solution to this problem! [Wiki](https://2021.igem.org/Team:TU_Kaiserslautern)https://static.igem.org/peertube/streaming-playlists/hls/b0c332f2-3774-4c57-abfa-fb4a0b2de8a0/59485718-3fdd-4b58-94dc-f068df1eea5a-master.m3u8https://video.igem.org/videos/embed/nPZk4a7Ua9By13ndstwfSU1200122021-07-27T19:10:19.290ZYES2021 Project PromotionsNOhttps://video.igem.org/w/uQ612weE8PB8uxsgjgewwDhttps://video.igem.org/lazy-static/thumbnails/b2965e66-eb01-4af5-849b-d9465bb7c624.jpgUBrawijaya: CHOP (2021) - Project Promotion [English]**Title:** CHOP **Description:** iGEM Brawijaya plans to solve the problem of low protein titter by developing an Outer Membrane Vesicle-based protein overexpression system called the "CHOP" system. The system will have 3 advantages; increased yield, customizability, and simplified harvesting for applicability in many industries. [Wiki](https://2021.igem.org/Team:UBrawijaya)https://static.igem.org/peertube/streaming-playlists/hls/e976aa42-8b0e-406d-a027-e307d109d821/f975ef26-0ab7-40db-a805-58fde05c0acc-master.m3u8https://video.igem.org/videos/embed/uQ612weE8PB8uxsgjgewwD1200442021-07-27T19:10:54.086ZCHOP_the_cost_CHOP_the_timemoreproductiveYES2021 Project PromotionsNOhttps://video.igem.org/w/92VHYCZ9cXW21a4JfhS9wYhttps://video.igem.org/lazy-static/thumbnails/482f850f-b886-4fd4-9295-ade98a31d0af.jpgUCAS-China: DeCaffi (2021) - Project Promotion [English]**Title:** DeCaffi **Description:** Many people like to relax with a cup of coffee. But for some, coffee can cause insomnia and anxiety. DeCaffi, a synthetic biology project designed by UCAS-China, is aimed at removing the caffeine in coffee without damaging the coffee’s flavor. This video gives a brief introduction to the core design of this project and its creation process. DeCaffi at night give you good sleep at sight. [Wiki](https://2021.igem.org/Team:UCAS-China)https://static.igem.org/peertube/streaming-playlists/hls/410df623-5683-418c-852b-51a3e075deb4/97220509-5665-4951-86b3-c618744c7a2a-master.m3u8https://video.igem.org/videos/embed/92VHYCZ9cXW21a4JfhS9wY1000952021-07-27T19:11:19.876ZDeCaffiDecaffeinationYES2021 Project PromotionsNOhttps://video.igem.org/w/atYa8wgLQgG93AdxtUUCyuhttps://video.igem.org/lazy-static/thumbnails/389b095a-b369-44cb-a232-4b1568d3bcc9.jpgUCDavis: Designing and Regulating mRNA in Vitro (2021) - Project Promotion [English]**Title:** Designing and Regulating mRNA in Vitro **Description:** Iron metabolism in cells utilizes translational regulation of mRNA through secondary structures known as iron response elements (IRE) that can be bound to iron response element binding protein. When bound, recruitment of translational machinery is sterically blocked. Project Cargo seeks to use this mechanism to reduce the side effects caused by mRNA vaccines by modulating the initial slope of translation to reduce an aggressive innate immune response. [Wiki](https://2021.igem.org/Team:UCDavis)https://static.igem.org/peertube/streaming-playlists/hls/4cc9f01e-4f50-4cde-a2f8-8cdad083456c/309c5cdc-91c5-4635-a187-53afa5762980-master.m3u8https://video.igem.org/videos/embed/atYa8wgLQgG93AdxtUUCyu1210512021-07-27T19:12:32.433ZpublichealthmamaliancellsYES2021 Project PromotionsNOhttps://video.igem.org/w/cpP4WvStiFCA8Yvm6DGgy2https://video.igem.org/lazy-static/thumbnails/c948722b-a78c-4e5c-966c-3397abb4c1dc.jpgUChicago: LACCXA (2021) - Project Promotion [English]**Title:** LACCXA **Description:** UChicago's 2021 iGEM team hopes to create an optimized enzyme called LACCXA, to degrade target antibiotics. The goal of LACCXA is to combat antibiotic pollution in water sources by using computational biology to promote the efficacy of enzyme based antibiotic degradation in these bodies of water. This video provides a brief overview of the scope, impact, and technology of UChicago's 2021 iGEM project. [Wiki](https://2021.igem.org/Team:UChicago)https://static.igem.org/peertube/streaming-playlists/hls/5c67a37c-14ec-4589-b89b-c9b48429058d/9efb2f7d-ede7-4c8a-be05-0f8432f0edf1-master.m3u8https://video.igem.org/videos/embed/cpP4WvStiFCA8Yvm6DGgy21180332021-07-27T19:12:33.631ZYES2021 Project PromotionsNOhttps://video.igem.org/w/mQA2KXT34QiKFVe4wSK8fKhttps://video.igem.org/lazy-static/thumbnails/734ec4de-7a8e-4401-b6c4-44080bef3332.jpgUCSC: Progenie (2021) - Project Promotion [English]**Title:** Progenie **Description:** Shiga Toxin-producing E. coli (STEC) causes upwards of 265,000 foodborne illnesses in humans, and is one of the top three causes of food recalls in the US. We are developing a method to prevent the spread of STEC by eliminating the Shiga toxin gene, stx2, in pathogenic E. coli without disrupting commensal bacteria. The removal of stx2 benefits local agricultural farms and distributors by preventing the spread of STEC, and therefore preventing food recalls and reducing food waste. [Wiki](https://2021.igem.org/Team:UCSC)https://static.igem.org/peertube/streaming-playlists/hls/a8bf7232-886a-4f9e-a0e7-94065ace942b/2e5e2a14-e3ff-4353-87db-72372815fc1e-master.m3u8https://video.igem.org/videos/embed/mQA2KXT34QiKFVe4wSK8fK1200672021-07-27T19:13:14.585ZYES2021 Project PromotionsNOhttps://video.igem.org/w/rWSvb9mKgsA5v4XSAjizQThttps://video.igem.org/lazy-static/thumbnails/6b883e0c-2ffe-4986-8dc1-0d13a42dc57e.jpgUESTC-China: Deink the dark (2021) - Project Promotion [English]**Title:** Deink the dark **Description:** Hey guys！This is UESTC-China! Nowadays, China is facing the paper recycling problem. For realizing the regeneration of paper and protecting our planet, we design a new surface assembly of a functional cellulosome using Pichia pastoris. Let's see our detailed solution in this video [Wiki](https://2021.igem.org/Team:UESTC-China)https://static.igem.org/peertube/streaming-playlists/hls/d21dc0f0-7130-41a3-98ea-086c0f6412bf/7551b4d4-dbfc-4f65-a8c3-875ef4fb26a0-master.m3u8https://video.igem.org/videos/embed/rWSvb9mKgsA5v4XSAjizQT12001162021-07-27T19:13:31.827ZdeinkpaperYES2021 Project PromotionsNOhttps://video.igem.org/w/uNe7A9Ft9Ei36eYnhDcxWGhttps://video.igem.org/lazy-static/thumbnails/403ea3e2-9b4a-4b44-8f91-5b25e7dfd26f.jpgUFlorida: UNTITLED (2021) - Project Promotion [English]**Title:** UNTITLED **Description:** The proliferation of antibiotic-resistant bacteria is a major public health issue affecting millions of Americans each year. For their 2021 project, Team Florida has set out to tackle this problem utilizing the precision gene targeting abilities of CRISPR/Cas9's DNA nuclease activity. Using this technology allows the elimination of specific antibiotic-resistant genes directly from the bacterial genome. [Wiki](https://2021.igem.org/Team:UFlorida)https://static.igem.org/peertube/streaming-playlists/hls/e9342d6c-e275-43ec-8549-0bb552ba4f08/b50be622-4f36-4f78-a500-f7c9d1099273-master.m3u8https://video.igem.org/videos/embed/uNe7A9Ft9Ei36eYnhDcxWG1190112021-07-27T19:14:07.875ZYES2021 Project PromotionsNOhttps://video.igem.org/w/jAqS2m69sLXcCRSsxGrY8zhttps://video.igem.org/lazy-static/thumbnails/85addbd0-84b0-4b2d-b4f7-4054b69184af.jpgUGM_Indonesia: AUVIOLA - Cyanide Production and Degradation Strategy for A Bette... (2021) - Proj...**Title:** AUVIOLA - Cyanide Production and Degradation Strategy for A Better Gold Bioleaching Process **Description:** Auviola is a brand-new breakthrough in the search for a better gold bioleaching process. This project will utilize the ability of Chromobacterium violaceum which is cyanide production and degradation. We are pinning our hopes on this project to solve the cyanide waste problems for a better environment and human health while still producing the best yield of gold. [Wiki](https://2021.igem.org/Team:UGM_Indonesia)https://static.igem.org/peertube/streaming-playlists/hls/96931b29-6cb8-4f83-be6f-d971796a24df/0f571e69-c1bf-40c7-9622-4bf50e3f550f-master.m3u8https://video.igem.org/videos/embed/jAqS2m69sLXcCRSsxGrY8z12001262021-07-27T19:15:01.964ZYES2021 Project PromotionsNOhttps://video.igem.org/w/c6CtSkw7TgpFkdzX72gUM1https://video.igem.org/lazy-static/thumbnails/2ef0e825-ba28-44dc-becc-da1735bc8507.jpgUI_Indonesia: Helicostrike (2021) - Project Promotion [English]**Title:** Helicostrike **Description:** We are from UI Indonesia team proudly present Helicostrike, project that aims to strike against Helicobacter pylori by dispersing its biofilm. It is our hope that through this project, it can help decrease the rate of gastric cancer caused by H.pylori's biofilm. Stay tuned for more updates from us! [Wiki](https://2021.igem.org/Team:UI_Indonesia)https://static.igem.org/peertube/streaming-playlists/hls/59ddb9db-7385-455a-adf2-853d8ebefcea/26ee2a91-31a4-4491-8a9a-9ff7a8dcd88b-master.m3u8https://video.igem.org/videos/embed/c6CtSkw7TgpFkdzX72gUM112001992021-07-27T19:15:03.301ZHELICOSTRIKEIGEMUIYES2021 Project PromotionsNOhttps://video.igem.org/w/orxFGCm91VsyFrhHfxKtPzhttps://video.igem.org/lazy-static/thumbnails/2a4094f4-3269-4cd3-99f6-c8328dbe32bf.jpgUiOslo_Norway: Detection of PFAS in ski wax (2021) - Project Promotion [English]**Title:** Detection of PFAS in ski wax **Description:** PFAS in ski waxes gives the skis better gliding properties. There is now a ban on PFAS-containing wax in skiing competitions due to the toxic effect it has on environment and health. Our plan is to exploit bacteria and specific genes that can recognize PFAS compounds with a reporter gene the bacteria will give off a measurable signal that can be integrated into a testing device. [Wiki](https://2021.igem.org/Team:UiOslo_Norway)https://static.igem.org/peertube/streaming-playlists/hls/b5ba2bc8-aec9-4225-b594-f792539b4d3b/1533e4d4-d1ed-4a73-8550-f98d3c868990-master.m3u8https://video.igem.org/videos/embed/orxFGCm91VsyFrhHfxKtPz1140302021-07-27T19:15:33.649ZPFASUiOYES2021 Project PromotionsNOhttps://video.igem.org/w/1BGTHV4H1TYNC9dhH8aed3https://video.igem.org/lazy-static/thumbnails/a45b1db6-ee1d-4d6a-9cc1-e0dfa42afb0d.jpgUIUC_Illinois: apPETite (2021) - Project Promotion [English]**Title:** apPETite **Description:** The University of Illinois iGEM team presents apPETite, a solution to improve upon the enzymatic activity of wild type PETase to facilitate more rapid PET plastic degradation. Special thanks to the Center for Advanced Bioenergy and Bioproducts Innovation and the Carl R. Woese Institute for Genomic Biology at the University of Illinois along with our mentors for making this project possible. [Wiki](https://2021.igem.org/Team:UIUC_Illinois)https://static.igem.org/peertube/streaming-playlists/hls/04fc3b7e-7c26-41a3-bba8-5f21d9c78506/0ffb5353-14a9-4d26-ada8-399a63feb9fc-master.m3u8https://video.igem.org/videos/embed/1BGTHV4H1TYNC9dhH8aed31200362021-07-27T19:16:16.846ZplasticpollutionYES2021 Project PromotionsNOhttps://video.igem.org/w/5hAPdaK3fu8DahDjSBgwS9https://video.igem.org/lazy-static/thumbnails/ca39c5b5-9454-4618-9afe-4ef1e56a45ba.jpgULaval: aSAP (2021) - Project Promotion [English]**Title:** aSAP **Description:** Maple syrup is a staple of Canadian culture. However, one defective maple syrup, ropy syrup, has a viscous texture that makes it unmarketable—an economic loss for producers. Our 2020-2021 team is developing aSAP: an enzymatic treatment to turn ropy maple syrup into a usable product. [Wiki](https://2021.igem.org/Team:ULaval)https://static.igem.org/peertube/streaming-playlists/hls/22b5e8ea-6071-433c-9fa1-4cb420ea5b5c/a32146bb-afd1-44cf-8bde-40d576500b83-master.m3u8https://video.igem.org/videos/embed/5hAPdaK3fu8DahDjSBgwS91180682021-07-27T19:16:18.102ZMaple syrupDextranYES2021 Project PromotionsNOhttps://video.igem.org/w/2CDFdwFv8gfFSy6iPzDiVChttps://video.igem.org/lazy-static/thumbnails/0e4ac143-5927-47b0-b0c8-5a62f1159447.jpgULaval: aSAP (2021) - Project Promotion [French]**Title:** aSAP **Description:** Maple syrup is a staple of Canadian culture. However, one defective maple syrup, ropy syrup, has a viscous texture that makes it unmarketable—an economic loss for producers. Our 2020-2021 team is developing aSAP: an enzymatic treatment to turn ropy maple syrup into a usable product. [Wiki](https://2021.igem.org/Team:ULaval)https://static.igem.org/peertube/streaming-playlists/hls/0d372214-7d3b-4df6-87ae-3f84b88c4982/9241ae04-dccd-4bd0-afa3-055385168ca9-master.m3u8https://video.igem.org/videos/embed/2CDFdwFv8gfFSy6iPzDiVC1180142021-07-27T19:16:19.327ZMaple syrupDextranYES2021 Project PromotionsNOhttps://video.igem.org/w/budgu2gSwLSwxWYpbzmBgKhttps://video.igem.org/lazy-static/thumbnails/e7171dfe-c950-4704-9a2f-67f3b9918694.jpgUlink-SIP: Production of Human Milk Oligosaccharide Using Bioengineering Bacteria (2021) - Projec...**Title:** Production of Human Milk Oligosaccharide Using Bioengineering Bacteria **Description:** Our team is going to use the bioengineering technologies to produce HMO. HMO can help prevent the potential infections happen in babies. 2′-Fucosyllactose will be produced through metabolic reactions inside the bioengineering bacteria. [Wiki](https://2021.igem.org/Team:Ulink-SIP)https://static.igem.org/peertube/streaming-playlists/hls/54ebc59d-a6d5-4424-b1fa-51005350c1ad/6f656d14-4e0e-499c-a532-322a971b3e79-master.m3u8https://video.igem.org/videos/embed/budgu2gSwLSwxWYpbzmBgK1160252021-07-27T19:16:50.790Z2′-FucosyllactoseHMOYES2021 Project PromotionsNOhttps://video.igem.org/w/aWAHWcSdQKp9AsgEgUKD1Ahttps://video.igem.org/lazy-static/thumbnails/43b1ded8-8f24-4550-be51-dc2c570c471f.jpgUMA_MALAGA: UNTITLED (2021) - Project Promotion [English]**Title:** UNTITLED **Description:** Our problem to be solved is the lack of recycling of waste cooking oil (WCO). From ATG x iGEMUMA we will use this waste to create biopaints. In the video we show the olive groves where the oil comes from and then reaches our kitchens. We analyse that the oil should be recycled and not thrown down the sink and we see how one of our teammates takes it to the laboratory to obtain the biopaints. [Wiki](https://2021.igem.org/Team:UMA_MALAGA)https://static.igem.org/peertube/streaming-playlists/hls/5081cf72-1c16-491a-b91c-a5f92bfbd7ae/2bcdaa41-9dab-4bf5-a69d-f99e2cb3e955-master.m3u8https://video.igem.org/videos/embed/aWAHWcSdQKp9AsgEgUKD1A920442021-07-27T19:18:22.941ZYES2021 Project PromotionsNOhttps://video.igem.org/w/whQvxpXFdaA5TKTVhZe171https://video.igem.org/lazy-static/thumbnails/a7b4a1c7-57fd-49cb-8139-f69c02953c75.jpgUMaryland: Phosphorus Recycling (2021) - Project Promotion [English]**Title:** Phosphorus Recycling **Description:** Increased levels of phosphorus in vital bodies of water, such as the Chesapeake Bay, create harmful algal blooms and “dead zones'' that result in fewer fish, decreased biodiversity, and lower food security. Our bioreactor system consists of two components, a biosensor and immobilized engineered E.coli. This system will improve water quality on an international scale, implement a phosphorus recycling process, and help farmers identify safe phosphorus levels with biosensors. [Wiki](https://2021.igem.org/Team:UMaryland)https://static.igem.org/peertube/streaming-playlists/hls/f54bf47e-e7ab-427d-88cc-08681ddd03b4/0a466233-5dbf-42bc-a28e-286f1bcb9f25-master.m3u8https://video.igem.org/videos/embed/whQvxpXFdaA5TKTVhZe1711080692021-07-27T19:18:52.835ZYES2021 Project PromotionsNOhttps://video.igem.org/w/w6aQUkDf8h2oN76zAjrwiUhttps://video.igem.org/lazy-static/thumbnails/729518df-5562-401c-b2f0-228dfd69173c.jpgUM_Macau: BADY-Beer Antioxidation and Depurination Yeast (2021) - Project Promotion [English]**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** BADY-Beer Antioxidation and Depurination Yeast **Description:** Team UM_Macau's project is to reduce the high purine content of beer while enhancing the antioxidant capacity of beer. The final product would be a healthier alternative for drinkers who has a higher risk of gout. Good antioxidant capacity will enable beer to be stored for a longer period of time. [Wiki](https://2021.igem.org/Team:UM_Macau)https://static.igem.org/peertube/streaming-playlists/hls/f3aaf1d8-1015-487b-91fa-36ca1b9fdb4e/c98edffd-547c-42cd-989c-b5578ea49206-master.m3u8https://video.igem.org/videos/embed/w6aQUkDf8h2oN76zAjrwiU1050682021-07-27T19:19:26.658ZgoutbeerYES2021 Project PromotionsNOhttps://video.igem.org/w/7ypJqUCEpVL1rr9gfGqwZihttps://video.igem.org/lazy-static/thumbnails/2e0183b5-f4be-404e-b966-229d9b3f9178.jpgUM_Macau: BADY-Beer Antioxidation and Depurination Yeast (2021) - Project Promotion [Chinese Sign...**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** BADY-Beer Antioxidation and Depurination Yeast **Description:** Team UM_Macau's project is to reduce the high purine content of beer while enhancing the antioxidant capacity of beer. The final product would be a healthier alternative for drinkers who has a higher risk of gout. Good antioxidant capacity will enable beer to be stored for a longer period of time. [Wiki](https://2021.igem.org/Team:UM_Macau)https://static.igem.org/peertube/streaming-playlists/hls/351d41f7-7889-43b0-b250-c782b52248f3/0055b032-581f-4684-8cda-b825a9409ba7-master.m3u8https://video.igem.org/videos/embed/7ypJqUCEpVL1rr9gfGqwZi1230192021-07-27T19:19:38.814ZbeergoutYES2021 Project PromotionsNOhttps://video.igem.org/w/pFZvVbGVR5kGRLFcRjoWUUhttps://video.igem.org/lazy-static/thumbnails/0054d657-07d0-489d-bd4b-d3101d254b75.jpgUNESP_Brazil: Lovelace's Note in Gene (2021) - Project Promotion [English]**Title:** Lovelace's Note in Gene **Description:** The big data industry is based on silicon, a non-renewable resource. In the past decade, humanity has created more information than all decades before it. Storing data in DNA offers higher information density and has the potential to continue as long as life continues to be based on this molecule. [Wiki](https://2021.igem.org/Team:UNESP_Brazil)https://static.igem.org/peertube/streaming-playlists/hls/bfd7a43f-0bce-4a7e-ac5e-52859b331c04/29eaa3b6-3661-4708-8098-1ecf7b3aafeb-master.m3u8https://video.igem.org/videos/embed/pFZvVbGVR5kGRLFcRjoWUU1170832021-07-27T19:19:40.008ZDataStoragecrisprYES2021 Project PromotionsNOhttps://video.igem.org/w/94FmdapcM4mFHUxbJWTu62https://video.igem.org/lazy-static/thumbnails/fb03dffd-7be2-46bf-9725-a697b1b7b684.jpgUNESP_Brazil: Lovelace's Note in Gene (2021) - Project Promotion [Portuguese]**Title:** Lovelace's Note in Gene **Description:** The big data industry is based on silicon, a non-renewable resource. In the past decade, humanity has created more information than all decades before it. Storing data in DNA offers higher information density and has the potential to continue as long as life continues to be based on this molecule. [Wiki](https://2021.igem.org/Team:UNESP_Brazil)https://static.igem.org/peertube/streaming-playlists/hls/414c9705-9e34-4740-9cf0-cc6c0de1a2ab/4e059158-a4ed-4e92-ade7-e0e8d4c3c472-master.m3u8https://video.igem.org/videos/embed/94FmdapcM4mFHUxbJWTu621170142021-07-27T19:19:41.135ZcrisprDataStorageYES2021 Project PromotionsNOhttps://video.igem.org/w/oJf6bUVx1yu7RYiNGP4r3yhttps://video.igem.org/lazy-static/thumbnails/3832554c-d639-40ce-a48f-68981908ae76.jpgUNILA_LatAm: BioPank (2021) - Project Promotion [English]**Title:** BioPank **Description:** Project BioPank is in honor of Pank, a little dog rescued from the streets that had her life shortened by complications from Visceral Leishmaniasis (VL). VL is a neglected tropical zoonosis that affects humans and other animals and has been growing in the region of Foz do Iguaçu and the triple border (Brazil, Paraguay and, Argentina). This year, the SynFronteras team (UNILA_LatAm) will develop a strategy to stop VL transmission by improving the paratransgenesis technique with synthetic biology. [Wiki](https://2021.igem.org/Team:UNILA_LatAm)https://static.igem.org/peertube/streaming-playlists/hls/b80ef8c7-6198-4850-8412-27d4ce759a80/a1d8f0ee-26bd-4340-b163-2f04b355e137-master.m3u8https://video.igem.org/videos/embed/oJf6bUVx1yu7RYiNGP4r3y12001402021-07-27T19:19:42.541ZUNILAleishmaniasisYES2021 Project PromotionsNOhttps://video.igem.org/w/kGRDA6yXK5UHFApvq8r6srhttps://video.igem.org/lazy-static/thumbnails/9fc905ee-4542-4442-a040-b022cf9fbc32.jpgUNILausanne: Aprifreeze (2021) - Project Promotion [English]**Title:** Aprifreeze **Description:** This year, our team created Aprifreeze, a product designed to prevent frost damage on apricot trees. Using Antifreeze Proteins, we aim to lower freezing temperatures on the plant. Our product is also designed to combat P.Syringae, a bacteria who’s protein accelerate the formation of ice crystals. [Wiki](https://2021.igem.org/Team:UNILausanne)https://static.igem.org/peertube/streaming-playlists/hls/9f91fb67-7e7c-42fa-8bcd-7836d9965ac9/813a7daa-5886-4bde-ad1e-1ef0af5a2e66-master.m3u8https://video.igem.org/videos/embed/kGRDA6yXK5UHFApvq8r6sr12001962021-07-27T19:19:43.847ZunilaprifreezeYES2021 Project PromotionsNOhttps://video.igem.org/w/5T4F4Nm6t2thKJ47qQVRkXhttps://video.igem.org/lazy-static/thumbnails/9f8e5292-48bc-4d7a-9714-a9b749f95419.jpgUnited_Shanghai_HS: Pet Big Eater (2021) - Project Promotion [English]**Title:** Pet Big Eater **Description:** Plastic waste pollution has seriously threatened the environment and creatures. Here, we designed a burying yard with concentrated PET plastics, using the modified E.colicarried by earthworms to initially degrade PET ,accelerating the degradation of PET plastics in it. At the same time, the activities of earthworms are used to improve the distribution of engineering bacteria and enzymes,solving the difficulty of frequent mixing in the dump site. [Wiki](https://2021.igem.org/Team:United_Shanghai_HS)https://static.igem.org/peertube/streaming-playlists/hls/2785c035-2bf9-4a57-902e-9091838f41b1/e240741b-1d8c-4fbb-91ea-8ffdd253e211-master.m3u8https://video.igem.org/videos/embed/5T4F4Nm6t2thKJ47qQVRkX1120392021-07-27T19:20:51.815ZYES2021 Project PromotionsNOhttps://video.igem.org/w/rPfMYNBikQzFizqdTFygH4https://video.igem.org/lazy-static/thumbnails/8b89b9a2-a6ca-42a9-9ea0-0a57f43f41f6.jpgUNSW_Australia: PROTECC Coral (2021) - Project Promotion [English]**Title:** PROTECC Coral **Description:** Our team, PROTECC coral, is an acronym for ‘Prevent Reactive Oxygen and Thermal Extreme Caused Carking’ which is the aim of our project for iGEM 2021. This year we’ve decided to continue the project into its Phase II stage, focusing primarily on the practical application of our solution and expanding the awareness of coral bleaching across Australia and the world. [Wiki](https://2021.igem.org/Team:UNSW_Australia)https://static.igem.org/peertube/streaming-playlists/hls/d10d8a40-5a9b-483e-b445-2976047685b9/b72d8cf6-6c32-4abd-b495-720f99e1e4b5-master.m3u8https://video.igem.org/videos/embed/rPfMYNBikQzFizqdTFygH41200962021-07-27T19:23:06.895ZYES2021 Project PromotionsNOhttps://video.igem.org/w/dALSypTCsDQp637WEkwDujhttps://video.igem.org/lazy-static/thumbnails/427c071c-474b-4a1a-a30f-5da21b6112d8.jpgUParis_BME: ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis (2021) - Project Pr...**Title:** ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis **Description:** Earlier diagnosis can save lives of many cancer patients. To help early cancer detection, our team is developing a microfluidic diagnostic device. Using toehold switch, our prototype detects early-stage miRNA onco-markers in patient's blood, providing a novel cancer screening solution. [Wiki](https://2021.igem.org/Team:UParis_BME)https://static.igem.org/peertube/streaming-playlists/hls/66089af2-f842-4c31-8611-cc43c1080bbe/2e9ada38-5ac9-4051-ab5e-02b1428ef5bf-master.m3u8https://video.igem.org/videos/embed/dALSypTCsDQp637WEkwDuj1150472021-07-27T19:23:46.386ZmicrofluidicscancerYES2021 Project PromotionsNOhttps://video.igem.org/w/wtcod8whiUdL1C1BzLvNfThttps://video.igem.org/lazy-static/thumbnails/1833a65b-a2af-4f36-9820-a0028720919e.jpgUParis_BME: ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis (2021) - Project Pr...**Title:** ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis **Description:** Earlier diagnosis can save lives of many cancer patients. To help early cancer detection, our team is developing a microfluidic diagnostic device. Using toehold switch, our prototype detects early-stage miRNA onco-markers in patient's blood, providing a novel cancer screening solution. [Wiki](https://2021.igem.org/Team:UParis_BME)https://static.igem.org/peertube/streaming-playlists/hls/f6be41ad-fa82-4540-b903-5d2d517d2d7f/1a51459d-a185-45bf-b0a8-8f95d3aaa72a-master.m3u8https://video.igem.org/videos/embed/wtcod8whiUdL1C1BzLvNfT115052021-07-27T19:24:25.842ZcancermicrofluidicsYES2021 Project PromotionsNOhttps://video.igem.org/w/s9XiTsva2MDfuJgNodcoVohttps://video.igem.org/lazy-static/thumbnails/5afa99a9-2dc9-4b3e-a2c2-7c757c33df1d.jpgUParis_BME: ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis (2021) - Project Pr...**Title:** ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis **Description:** Earlier diagnosis can save lives of many cancer patients. To help early cancer detection, our team is developing a microfluidic diagnostic device. Using toehold switch, our prototype detects early-stage miRNA onco-markers in patient's blood, providing a novel cancer screening solution. [Wiki](https://2021.igem.org/Team:UParis_BME)https://static.igem.org/peertube/streaming-playlists/hls/d3cda3ec-cef9-4b08-8cf8-3d5570d13468/11e1b9c8-6760-4b21-86ad-4b48742a5255-master.m3u8https://video.igem.org/videos/embed/s9XiTsva2MDfuJgNodcoVo115062021-07-27T19:25:05.375ZcancermicrofluidicsYES2021 Project PromotionsNOhttps://video.igem.org/w/67HVdimSExK8RKqDjArxHFhttps://video.igem.org/lazy-static/thumbnails/6b24269a-ebb9-435e-8177-fa5557f66abc.jpgUParis_BME: ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis (2021) - Project Pr...**Title:** ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis **Description:** Earlier diagnosis can save lives of many cancer patients. To help early cancer detection, our team is developing a microfluidic diagnostic device. Using toehold switch, our prototype detects early-stage miRNA onco-markers in patient's blood, providing a novel cancer screening solution. [Wiki](https://2021.igem.org/Team:UParis_BME)https://static.igem.org/peertube/streaming-playlists/hls/296dfd0c-19e3-41fe-adff-f6dbdf2a1c55/fb1f2e3e-7653-4daa-92bc-acb8b9209988-master.m3u8https://video.igem.org/videos/embed/67HVdimSExK8RKqDjArxHF115042021-07-27T19:25:44.819ZmicrofluidicscancerYES2021 Project PromotionsNOhttps://video.igem.org/w/6NwME6oi1VNSkWhvj9xCEZhttps://video.igem.org/lazy-static/thumbnails/0addf45a-3192-4cfd-911f-a6d72488907f.jpgUParis_BME: ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis (2021) - Project Pr...**Title:** ExoSwitch – a liquid biopsy tool for early-stage cancer diagnosis **Description:** Earlier diagnosis can save lives of many cancer patients. To help early cancer detection, our team is developing a microfluidic diagnostic device. Using toehold switch, our prototype detects early-stage miRNA onco-markers in patient's blood, providing a novel cancer screening solution. [Wiki](https://2021.igem.org/Team:UParis_BME)https://static.igem.org/peertube/streaming-playlists/hls/2efce147-8082-47d5-a05c-94c91f9923bd/cea6569d-dc6c-4a0b-bf14-00acee2f47ca-master.m3u8https://video.igem.org/videos/embed/6NwME6oi1VNSkWhvj9xCEZ1150122021-07-27T19:26:24.182ZmicrofluidicscancerYES2021 Project PromotionsNOhttps://video.igem.org/w/t9rgzm7M2h2BCQV5HjPERQhttps://video.igem.org/lazy-static/thumbnails/6bfacd62-cc07-4ccd-b7ef-29bb32deab74.jpgUPenn: OptoReader (2021) - Project Promotion [English]**Title:** OptoReader **Description:** Metabolic engineering has the potential to change the world, and optogenetic tools can make metabolic engineering research easier by providing spatiotemporal control over cells. However, current optogenetic experiments are low-throughput, expensive, and laborious, which makes them inaccessible to many. To tackle this problem, we combined a light-stimulation device with a plate reader, creating our OptoReader. Our device would make optogenetic experiments more efficient and available to all. [Wiki](https://2021.igem.org/Team:UPenn)https://static.igem.org/peertube/streaming-playlists/hls/dbd4442a-0f93-4bbe-b9b7-19b939a05f3a/e75cd343-5d0a-4fc0-a01b-48425c2fff79-master.m3u8https://video.igem.org/videos/embed/t9rgzm7M2h2BCQV5HjPERQ12005272021-07-27T19:26:25.396ZYES2021 Project PromotionsNOhttps://video.igem.org/w/aRixqA1uGvv1GdCvhmrCT6https://video.igem.org/lazy-static/thumbnails/6495ab90-b961-4702-8628-dfda2eeed046.jpgUPF_Barcelona: ARIA: Antibiotic Resistance Inference Array (2021) - Project Promotion [English]**Title:** ARIA: Antibiotic Resistance Inference Array **Description:** Antibiotic Resistance can affect any one of any age in any country, so new approaches to tackle this problem are needed. We developed two AIs. Alpha analyzes the genomes of hundreds of pathogens and identifies the genetic architectures that support specific forms of resistance, designing biosensors to detect them. We produce and distribute them in an array, so when adding the pathogen, the hidden resistant mechanisms are unveiled and processed by Omega, which identifies the resistance class. [Wiki](https://2021.igem.org/Team:UPF_Barcelona)https://static.igem.org/peertube/streaming-playlists/hls/4fc480d0-9947-4aaa-bb34-c7d6e0c4750b/5c1cb6cf-3a51-4be1-975d-2fc702d6f25b-master.m3u8https://video.igem.org/videos/embed/aRixqA1uGvv1GdCvhmrCT61200882021-07-27T19:27:19.183ZYES2021 Project PromotionsNOhttps://video.igem.org/w/pFpqoFgLsy6tmTRK4Prxfqhttps://video.igem.org/lazy-static/thumbnails/ef393c25-a3fe-490e-a6b2-233a67ed427c.jpgUPF_Barcelona: ARIA: Antibiotic Resistance Inference Array (2021) - Project Promotion [Catalan]**Title:** ARIA: Antibiotic Resistance Inference Array **Description:** Antibiotic Resistance can affect any one of any age in any country, so new approaches to tackle this problem are needed. We developed two AIs. Alpha analyzes the genomes of hundreds of pathogens and identifies the genetic architectures that support specific forms of resistance, designing biosensors to detect them. We produce and distribute them in an array, so when adding the pathogen, the hidden resistant mechanisms are unveiled and processed by Omega, which identifies the resistance class. [Wiki](https://2021.igem.org/Team:UPF_Barcelona)https://static.igem.org/peertube/streaming-playlists/hls/bfc2a12f-388d-465f-89a8-1765bc4bed98/23a7ad01-e035-4af9-8050-6cb168fd5a10-master.m3u8https://video.igem.org/videos/embed/pFpqoFgLsy6tmTRK4Prxfq120092021-07-27T19:28:54.366ZYES2021 Project PromotionsNOhttps://video.igem.org/w/q8BPZHPSGw42Yx74uxxB7phttps://video.igem.org/lazy-static/thumbnails/f38292eb-6fc7-4efe-83a7-70834d5fa8ab.jpgUPF_Barcelona: ARIA: Antibiotic Resistance Inference Array (2021) - Project Promotion [Spanish]**Title:** ARIA: Antibiotic Resistance Inference Array **Description:** Antibiotic Resistance can affect any one of any age in any country, so new approaches to tackle this problem are needed. We developed two AIs. Alpha analyzes the genomes of hundreds of pathogens and identifies the genetic architectures that support specific forms of resistance, designing biosensors to detect them. We produce and distribute them in an array, so when adding the pathogen, the hidden resistant mechanisms are unveiled and processed by Omega, which identifies the resistance class. [Wiki](https://2021.igem.org/Team:UPF_Barcelona)https://static.igem.org/peertube/streaming-playlists/hls/c36b9d1c-4e1d-43f3-a46c-190ccdda8767/a7ec983c-dd9c-425a-b076-37c43bedcaed-master.m3u8https://video.igem.org/videos/embed/q8BPZHPSGw42Yx74uxxB7p1200122021-07-27T19:29:48.325ZYES2021 Project PromotionsNOhttps://video.igem.org/w/tD7V4CC2XeFUe7djaeauCshttps://video.igem.org/lazy-static/thumbnails/730f3d9a-03c3-424e-8995-e0431cd8b15b.jpgUppsala: FGFuture (2021) - Project Promotion [English]**Title:** FGFuture **Description:** Cultivated meat can be grown in serum-free media, and improving the contained growth factors (mainly FGF2) would increase the viability of its large-scale production. We want to optimize FGF2 for increased thermostability, binding of more receptors, and increased binding affinity to the receptors. [Wiki](https://2021.igem.org/Team:Uppsala)https://static.igem.org/peertube/streaming-playlists/hls/dfd58656-1aba-42c7-a6b3-0339c13a6e8a/40ef7fff-bef4-439f-9c80-ebeb8baa0d27-master.m3u8https://video.igem.org/videos/embed/tD7V4CC2XeFUe7djaeauCs1200792021-07-27T19:30:30.351ZcultivatedmeatFGF2YES2021 Project PromotionsNOhttps://video.igem.org/w/o77GJ1LqvtWRuuVbWRhYWmhttps://video.igem.org/lazy-static/thumbnails/6b60b695-a497-448a-af53-8939dac0d4e9.jpgUppsala: FGFuture (2021) - Project Promotion [German]**Title:** FGFuture **Description:** Cultivated meat can be grown in serum-free media, and improving the contained growth factors (mainly FGF2) would increase the viability of its large-scale production. We want to optimize FGF2 for increased thermostability, binding of more receptors, and increased binding affinity to the receptors. [Wiki](https://2021.igem.org/Team:Uppsala)https://static.igem.org/peertube/streaming-playlists/hls/b303a4bb-4b9b-4f2e-a190-a0b51e236180/c0df1ec9-b313-430f-8869-01fcffc531ff-master.m3u8https://video.igem.org/videos/embed/o77GJ1LqvtWRuuVbWRhYWm1200132021-07-27T19:31:12.431ZFGF2cultivatedmeatYES2021 Project PromotionsNOhttps://video.igem.org/w/cswWXKYUL3a9YVVco16agHhttps://video.igem.org/lazy-static/thumbnails/efc1ec6f-a8a1-4be0-8736-575cbe4986f2.jpgUppsala: FGFuture (2021) - Project Promotion [Hindi]**Title:** FGFuture **Description:** Cultivated meat can be grown in serum-free media, and improving the contained growth factors (mainly FGF2) would increase the viability of its large-scale production. We want to optimize FGF2 for increased thermostability, binding of more receptors, and increased binding affinity to the receptors. [Wiki](https://2021.igem.org/Team:Uppsala)https://static.igem.org/peertube/streaming-playlists/hls/5cc8ef77-ceb0-4b38-9194-a78e45f0169b/e9a2a5d0-fc25-445e-86b9-11180c355c4c-master.m3u8https://video.igem.org/videos/embed/cswWXKYUL3a9YVVco16agH120082021-07-27T19:31:54.555ZcultivatedmeatFGF2YES2021 Project PromotionsNOhttps://video.igem.org/w/mDEsCStEuZuu1YHo3xzEMxhttps://video.igem.org/lazy-static/thumbnails/765f6c42-da74-4781-b6b1-eb999296cadf.jpgUppsala: FGFuture (2021) - Project Promotion [Swedish]**Title:** FGFuture **Description:** Cultivated meat can be grown in serum-free media, and improving the contained growth factors (mainly FGF2) would increase the viability of its large-scale production. We want to optimize FGF2 for increased thermostability, binding of more receptors, and increased binding affinity to the receptors. [Wiki](https://2021.igem.org/Team:Uppsala)https://static.igem.org/peertube/streaming-playlists/hls/a738fe79-2756-42e5-9614-1dd7cadecd01/abdd3f5a-fe72-42cd-aea0-de3ce3d1d646-master.m3u8https://video.igem.org/videos/embed/mDEsCStEuZuu1YHo3xzEMx120082021-07-27T19:32:36.612ZFGF2cultivatedmeatYES2021 Project PromotionsNOhttps://video.igem.org/w/mj4FuuNMfK9jRxwijzHGMQhttps://video.igem.org/lazy-static/thumbnails/34e6fcc0-b58e-4d39-91c2-71b28f2916db.jpgUSP-Brazil: Let.It.Bee. (2021) - Project Promotion [English]**Title:** Let.It.Bee. **Description:** A therapy session between a bee and a farmer that try to solve their relationship problems. The Bee is worried about her health, the farmer is worried about his crops. Knowing of their problem, the therapist introduces a new way to try and save their relationship, the Let.It.Bee.'s tomato plant. [Wiki](https://2021.igem.org/Team:USP-Brazil)https://static.igem.org/peertube/streaming-playlists/hls/a47c6df2-c5eb-492f-8fca-3b5ca45b12fa/e696fe95-9396-4f28-beaf-01bca6f2e2fe-master.m3u8https://video.igem.org/videos/embed/mj4FuuNMfK9jRxwijzHGMQ12002692021-07-27T19:33:11.464ZBeetherapyYES2021 Project PromotionsNOhttps://video.igem.org/w/2U1i15Z9C6tZPaBSVaCbNhhttps://video.igem.org/lazy-static/thumbnails/e9261012-7490-4c0e-8df0-c6f72596f074.jpgUSP-EEL-Brazil: Honorato (2021) - Project Promotion [English]**Title:** Honorato **Description:** Honorato project has as its main goal to produce an inhibitor for the enzyme phospholipase A2, present in the venom of snakes of the Bothrops Genus. Thus, myonecrosiscan be controlled more efficiently with the use of this inhibitor. In addition, one of the main problems faced by injured people who have necrotic limbs is the delay until the complete serum is applied. Our project aims to act incisively on this point. [Wiki](https://2021.igem.org/Team:USP-EEL-Brazil)https://static.igem.org/peertube/streaming-playlists/hls/0f5bfecf-1207-464a-a313-c81c8f0fce34/f075898d-b37e-43a7-a67f-e11941c8a21d-master.m3u8https://video.igem.org/videos/embed/2U1i15Z9C6tZPaBSVaCbNh640462021-07-27T19:33:25.345ZsnakebitesophidicaccidentsYES2021 Project PromotionsNOhttps://video.igem.org/w/9KNJ1sXNyDKTH3S8sBY6vEhttps://video.igem.org/lazy-static/thumbnails/bac2b987-75b5-45ab-ab9e-304906def8b8.jpgUSTC: AD Early Diagnosis (2021) - Project Promotion [English]**Title:** AD Early Diagnosis **Description:** We devised a new-concept in vitro Tau detection method for early AD diagnosis, depending on the specific binding between aptamers and Tau proteins. [Wiki](https://2021.igem.org/Team:USTC)https://static.igem.org/peertube/streaming-playlists/hls/46e6e2e1-28e2-4826-a051-940ed29cf55c/d1ade9ab-1169-4a12-b871-8faa0e87d8d4-master.m3u8https://video.igem.org/videos/embed/9KNJ1sXNyDKTH3S8sBY6vE1200762021-07-27T19:34:39.354ZdiagnosticschinaYES2021 Project PromotionsNOhttps://video.igem.org/w/vNGx3WsXWis16YcqSDY3yBhttps://video.igem.org/lazy-static/thumbnails/9d1e349e-9284-45a2-94ee-95bf093fd519.jpgUSTC-Software: CAT (2021) - Project Promotion [English]**Title:** CAT **Description:** This is the project promotion video of team, USTC-Software. We design CAT to ease people's workload by predicting the properties of protein sequence. CAT is based on artificial intelligence and is trained by thousands of data to enhance its accuracy. CAT also aims to contain some educational meanings. We hope CAT can have a positive impact on synthetic biology. [Wiki](https://2021.igem.org/Team:USTC-Software)https://static.igem.org/peertube/streaming-playlists/hls/f15e3721-e06c-4dc3-a669-dd090f317a7b/568bc152-7cfc-4c22-bf4a-71fc4447ffce-master.m3u8https://video.igem.org/videos/embed/vNGx3WsXWis16YcqSDY3yB1160442021-07-27T19:35:42.981ZUSTC-SoftwareYES2021 Project PromotionsNOhttps://video.igem.org/w/gM7Rz4vmCwAMudv7gdG1Fhhttps://video.igem.org/lazy-static/thumbnails/d58f9dd1-baa7-4ab7-aa15-7c18860b9066.jpgUTokyo: Synbio Bandage for Care in an Aging Population (2021) - Project Promotion [English]**Title:** Synbio Bandage for Care in an Aging Population **Description:** Our project aims to develop a synbio adhesive bandage to treat bedsores. Yeasts in the bandage monitor the condition of wounds by oxygen concentration and sanitize them with antimicrobial peptides. Our solution tackles the crucial problem of an aging population by facilitating the care of bedsores. [Wiki](https://2021.igem.org/Team:UTokyo)https://static.igem.org/peertube/streaming-playlists/hls/7fc5c61d-14fc-4680-855f-fc2922007e46/7b659ab9-0e21-45ed-ae28-441cbc200029-master.m3u8https://video.igem.org/videos/embed/gM7Rz4vmCwAMudv7gdG1Fh12001442021-07-27T19:36:31.324ZYEASTYES2021 Project PromotionsNOhttps://video.igem.org/w/93bWF2DpsReJR7hgFJvz4Jhttps://video.igem.org/lazy-static/thumbnails/2dcfa5c5-8fee-45d7-aca8-3362a6dd2ecb.jpgUZurich: BOOMV (2021) - Project Promotion [English]**Title:** BOOMV **Description:** Recently, people have started to turn their backs on synthetic pesticides for more sustainable practices in agriculture. New solutions are being sought out to support this movement and our team is doing so too. We are working on a way to elicit the plant’s immune response using bacterial vesicles. [Wiki](https://2021.igem.org/Team:UZurich)https://static.igem.org/peertube/streaming-playlists/hls/41175728-540c-4ecc-8214-e70bdef91ec4/0a08690f-8f03-4df1-8354-4afffabdcd7a-master.m3u8https://video.igem.org/videos/embed/93bWF2DpsReJR7hgFJvz4J11401472021-07-27T19:36:32.765ZYES2021 Project PromotionsNOhttps://video.igem.org/w/sdjnSbydcyRvWug8mAfryshttps://video.igem.org/lazy-static/thumbnails/c2dcc406-17c1-4279-b52e-899fd205ade6.jpgVictoria_Wellington: Tropine synthesis in Synechococcus elongatus (2021) - Project Promotion [Eng...**Warning:** This video has a caption error - captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Tropine synthesis in Synechococcus elongatus **Description:** Our group aims to develop a pathway in order to synthesize a Tropane alkaloid intermediate (Tropine) from an abundant precursor found in cyanobacteria using the Solanaceae elongatus derived Tropine biosynthesis pathway. Tropines are precursors in the synthesis of hyoscyamine and scopolamine, two plant alkaloids classified as essential medicines by the WHO. Our project goal is to remedy the impact current world crises have had on the cultivation and exportation of the drug. [Wiki](https://2021.igem.org/Team:Victoria_Wellington)https://static.igem.org/peertube/streaming-playlists/hls/d445db09-e866-4d22-860e-49517b9fa7ee/a68675b8-3a63-42c9-a357-b50c2d667171-master.m3u8https://video.igem.org/videos/embed/sdjnSbydcyRvWug8mAfrys1200882021-07-27T19:36:34.172ZYES2021 Project PromotionsNOhttps://video.igem.org/w/cNJn4hr7hNrgNxz72kGMm3https://video.igem.org/lazy-static/thumbnails/b6eec270-2ced-4761-ae53-27705bad036b.jpgVilnius-Lithuania: AmeBye (2021) - Project Promotion [English]**Title:** AmeBye **Description:** Team Vilnius-Lithuania presents "AmeBye", a project targeting invasive Entamoeba histolytica species that causes amoebiasis - an infection of the human gastrointestinal tract. In a two-part project, our team is developing a rapid & low-cost diagnostic test and a preventive compound that will diminish the virulence and viability of our target amoeba. Find out more in our promotion video! Filming & editing: Video Lab (Edgaras Kurauskas) Music: Ian Post - New World [Wiki](https://2021.igem.org/Team:Vilnius-Lithuania)https://static.igem.org/peertube/streaming-playlists/hls/5f9ad888-92db-47d0-ac90-3a53a6ae26ee/96b178a9-8bd9-49e0-b4cc-9705608eaaea-master.m3u8https://video.igem.org/videos/embed/cNJn4hr7hNrgNxz72kGMm311401952021-07-27T19:36:35.260ZAmoebiasisYES2021 Project PromotionsNOhttps://video.igem.org/w/biomFb6ccpf1pFF8Bk2pMMhttps://video.igem.org/lazy-static/thumbnails/1c3c49eb-a871-467e-8ed8-3888d9567bf1.jpgVilnius-Lithuania: AmeBye (2021) - Project Promotion [Lithuanian]**Title:** AmeBye **Description:** Team Vilnius-Lithuania presents "AmeBye", a project targeting invasive Entamoeba histolytica species that causes amoebiasis - an infection of the human gastrointestinal tract. In a two-part project, our team is developing a rapid & low-cost diagnostic test and a preventive compound that will diminish the virulence and viability of our target amoeba. Find out more in our promotion video! Filming & editing: Video Lab (Edgaras Kurauskas) Music: Ian Post - New World [Wiki](https://2021.igem.org/Team:Vilnius-Lithuania)https://static.igem.org/peertube/streaming-playlists/hls/5368cef0-65e3-45cb-bd63-55cd0ba5a213/056787c6-95a8-4c40-b81c-21d7a1811593-master.m3u8https://video.igem.org/videos/embed/biomFb6ccpf1pFF8Bk2pMM1130232021-07-27T19:36:36.296ZAmoebiasisYES2021 Project PromotionsNOhttps://video.igem.org/w/bnzSfb48AXiZu5BsAnFHvRhttps://video.igem.org/lazy-static/thumbnails/521540f4-a712-434f-bc11-09086179ba85.jpgVirginia: Manifold (2021) - Project Promotion [English]**Warning:** This video has a wrong intro sequence. **Title:** Manifold **Description:** Pharmaceutical and chemical manufacturing face inefficiencies and high production costs due to problems with chemical synthesis such as flux imbalances, pathway competition, loss of intermediates, and toxic intermediates. Virginia iGEM is creating a revolutionary technology called Manifold: a platform system that utilizes biosynthesis to localize chemical synthesis within bacterial microcompartments using DNA scaffolds. Manifold is an innovative solution to meet the demands of growing industry [Wiki](https://2021.igem.org/Team:Virginia)https://static.igem.org/peertube/streaming-playlists/hls/53fee069-5f4c-4965-8650-4e7c0092b92f/611de829-9495-4a39-af70-2c81e8a7b9c1-master.m3u8https://video.igem.org/videos/embed/bnzSfb48AXiZu5BsAnFHvR1200602021-07-27T19:56:02.483ZYES2021 Project PromotionsNOhttps://video.igem.org/w/9fAxU63ogRuJfuHGwkeSihhttps://video.igem.org/lazy-static/thumbnails/5dfcbea2-3fa1-4ecf-b3f5-b9ac51a184be.jpgWageningen_UR: Cattlelyst (2021) - Project Promotion [English]**Title:** Cattlelyst **Description:** Earth suffers from an excess of reactive nitrogen, among which ammonia. In the Netherlands, 50% of total nitrogen emissions come from cattle industry. Besides ammonia, cattle emit the greenhouse gas methane. Responding to both threats, our team is developing Cattlelyst, an innovative biofilter for cattle stalls that removes methane and ammonia. [Wiki](https://2021.igem.org/Team:Wageningen_UR)https://static.igem.org/peertube/streaming-playlists/hls/42d2d071-969c-4a47-a017-0b3614a3326a/bc2c8393-b609-4779-a2b5-19d82c563f73-master.m3u8https://video.igem.org/videos/embed/9fAxU63ogRuJfuHGwkeSih11801262021-07-27T19:56:41.767ZYES2021 Project PromotionsNOhttps://video.igem.org/w/upobDfPFt8khAjvoVF5mvDhttps://video.igem.org/lazy-static/thumbnails/087a2f7e-f4b4-4219-99b2-60d841d5020b.jpgWarwick: Crescent (2021) - Project Promotion [English]**Title:** Crescent **Description:** We aim to develop a CRISPR dcas9 based fast fluorescent detection method system for carbapenem- resistant Enterobacteriaceae (CRE), which will hopefully be implemented in hospital cleaning routine to prevent CRE a common family of antibiotic resistant bacteria found in sinks from spreading. [Wiki](https://2021.igem.org/Team:Warwick)https://static.igem.org/peertube/streaming-playlists/hls/e603a906-295a-4260-b54b-07246d6455b7/77d916ce-b476-4de8-b54d-75231d11f8d0-master.m3u8https://video.igem.org/videos/embed/upobDfPFt8khAjvoVF5mvD980822021-07-27T19:57:23.425ZWarwickiGEMCrescentYES2021 Project PromotionsNOhttps://video.igem.org/w/mo86K28tqBK4iqXtFk7Y7hhttps://video.igem.org/lazy-static/thumbnails/ae6cbc59-c1bc-4cbf-a68d-e4139feb5dd6.jpgWashington: RhizoMet (2021) - Project Promotion [English]**Title:** RhizoMet **Description:** Heavy metal contamination by arsenic is a serious health and environmental concern worldwide. The Washington iGEM team aims to tackle this problem at its roots with our solution RhizoMet. RhizoMet utilizes engineered bacteria in plants to selectively accumulate arsenic by expressing novel proteins with a high binding affinity to the heavy metal. With this project, we hope to develop a sustainable way of removing arsenic from soil. [Wiki](https://2021.igem.org/Team:Washington)https://static.igem.org/peertube/streaming-playlists/hls/a50d82d4-3c14-4d3c-adbf-a0b40cfeb20c/01b6b5c7-a1f9-465c-8966-d625b15b5dba-master.m3u8https://video.igem.org/videos/embed/mo86K28tqBK4iqXtFk7Y7h1210722021-07-27T19:57:47.171ZYES2021 Project PromotionsNOhttps://video.igem.org/w/r2qYAZ56ZAYHTEPiJbMqGehttps://video.igem.org/lazy-static/thumbnails/f250e4e3-0a0a-4b05-bcb6-7d8f6435068a.jpgWaterloo: NeuroDetech (2021) - Project Promotion [English]**Title:** NeuroDetech **Description:** Attention-Deficit/Hyperactivity Disorder (ADHD) is a neurodevelopmental disorder. Current diagnosis procedures require qualitative psychological tests, thus diagnoses are subject to clinician bias. NeuroDetech aims to create a quantitative tool to aid ADHD diagnosis and reduce the margin of bias. [Wiki](https://2021.igem.org/Team:Waterloo)https://static.igem.org/peertube/streaming-playlists/hls/caa79a2b-7044-4104-b6a2-36177c61dc25/900a5a2f-6ced-4431-b33c-4340d3b26496-master.m3u8https://video.igem.org/videos/embed/r2qYAZ56ZAYHTEPiJbMqGe12001282021-07-27T19:58:25.520Z#quantitative#ADHDYES2021 Project PromotionsNOhttps://video.igem.org/w/9ragSsVY29DszKErGTMfPshttps://video.igem.org/lazy-static/thumbnails/69cd7bee-f49a-4273-8cd3-14e26dd12061.jpgWFLA_YK_PAO: Intestinal probiotics to digest microplastics (2021) - Project Promotion [English]**Title:** Intestinal probiotics to digest microplastics **Description:** Because microplastics are not digested by living organisms, they will be accumulated inside human body, causing uncertain harm. Therefore, we constructed engineered probiotics to secrete enzymes in gut for degrading  microplastics then avoid further health issues. [Wiki](https://2021.igem.org/Team:WFLA_YK_PAO)https://static.igem.org/peertube/streaming-playlists/hls/444c6b29-88bc-43c0-b6b0-4e3c564b7730/fb3376c5-d586-4875-96be-42e7969b6a52-master.m3u8https://video.igem.org/videos/embed/9ragSsVY29DszKErGTMfPs800172021-07-27T19:58:45.042ZYES2021 Project PromotionsNOhttps://video.igem.org/w/58kE5heHcMUxk7WgAJcXJ5https://video.igem.org/lazy-static/thumbnails/26444de7-c7fd-492b-8cbb-575cd449b33d.jpgWhittle: The Ivy Control Project (2021) - Project Promotion [English]**Title:** The Ivy Control Project **Description:** Have you ever been annoyed by the intertwined ivy in your garden? When it takes too much time to cut and shape it, we present; The secret material that shapes your whole wall of ivy into a majestic piece art. It simplifies your burden on cutting it as an individual and it controls the path where the ivy will grow on public infrastructures. Basic fulfillments upon ivies are being satisfied such as beauty and convenience. Huge benefits brought to everyone, no matter where you are or what you do. [Wiki](https://2021.igem.org/Team:Whittle)https://static.igem.org/peertube/streaming-playlists/hls/216adfef-3fd0-4504-8fa8-24a64d47949c/fd0c789c-62ca-4aa7-a832-df14de570ea9-master.m3u8https://video.igem.org/videos/embed/58kE5heHcMUxk7WgAJcXJ51200892021-07-27T19:58:46.472ZWhittleTheIvyControlProjectYES2021 Project PromotionsNOhttps://video.igem.org/w/89LTifDbpfJ6S2sYpXxNzchttps://video.igem.org/lazy-static/thumbnails/5bb28b35-1738-4d7c-8c59-44063db9d0e6.jpgWHU-China: Acneraser (2021) - Project Promotion [English]**Title:** Acneraser **Description:** Acne is a common skin disease. Generally speaking, it is related to pores being blocked by sebum and propionibacterium acnes proliferating in anaerobic environment. Our project aims at acne caused by such factors and hopes to develop a drug for acne treatment with convenience and less side effects. [Wiki](https://2021.igem.org/Team:WHU-China)https://static.igem.org/peertube/streaming-playlists/hls/39e994f0-ba24-48db-bf22-384db753d6a5/1dd6af9e-7c88-406b-894a-4b4da047d403-master.m3u8https://video.igem.org/videos/embed/89LTifDbpfJ6S2sYpXxNzc12002262021-07-27T19:59:26.206Z#AcneYES2021 Project PromotionsNOhttps://video.igem.org/w/8PMsZEHEeFpSRdjmrdM5dyhttps://video.igem.org/lazy-static/thumbnails/aa4d6055-2717-449e-96a3-0725c15ad43c.jpgWilliam_and_Mary: Orthogonality (2021) - Project Promotion [English]**Title:** Orthogonality **Description:** Although orthogonality is a key tenet of synthetic biology, methods that assess it are relatively scarce. We aim to create a model that will provide an orthogonality metric and design a sensor circuit that allows other iGEM teams to obtain a preliminary orthogonality assessment of their circuits. [Wiki](https://2021.igem.org/Team:William_and_Mary)https://static.igem.org/peertube/streaming-playlists/hls/3f5bf266-0afc-40ca-9d39-765b2edb99d0/e432743e-4a26-4c27-a9e7-63354b9b5c19-master.m3u8https://video.igem.org/videos/embed/8PMsZEHEeFpSRdjmrdM5dy12001052021-07-27T20:00:34.475ZYES2021 Project PromotionsNOhttps://video.igem.org/w/whe7gEpQ4MHYSnM9tfhTTdhttps://video.igem.org/lazy-static/thumbnails/75dc6675-90c7-48ca-8a4d-e88e5c5e42c1.jpgWorldshaper-Nanjing: Turn gutter oil to treasure (2021) - Project Promotion [English]**Title:** Turn gutter oil to treasure **Description:** Nowadays, gutter oil exists in the food industry at a very low cost, which threatens people's health. In order to solve the problems, we try to develop an efficient method to converge gutter oil into usable oil like linolenic acid that plays a vital role in health care. [Wiki](https://2021.igem.org/Team:Worldshaper-Nanjing)https://static.igem.org/peertube/streaming-playlists/hls/f5362366-0bf4-47b2-8f0e-890456a61686/13a519bd-ed1e-4e82-b5e0-b86541140f7b-master.m3u8https://video.igem.org/videos/embed/whe7gEpQ4MHYSnM9tfhTTd1200492021-07-27T20:00:35.542Zfood safetygutter oilYES2021 Project PromotionsNOhttps://video.igem.org/w/1kDwTpNxRCoECXrA7WoLcZhttps://video.igem.org/lazy-static/thumbnails/48177c34-b1b9-44de-a8a6-7bfe24901990.jpgWorldshaper-Shanghai: New AD Drug Screening Model (2021) - Project Promotion [English]**Title:** New AD Drug Screening Model **Description:** Our team uses drosophila to create the new drug screening model for AD. Compared with traditional animal models, the entire APP fragments are transferred into drosophila. We will determine the APP-induced symptoms of drosophila. Hope more AD medicine can be screened. [Wiki](https://2021.igem.org/Team:Worldshaper-Shanghai)https://static.igem.org/peertube/streaming-playlists/hls/02be4309-e432-464d-8a17-2708691e6977/757a2746-0178-4f42-8ca3-5d9b1ae6b760-master.m3u8https://video.igem.org/videos/embed/1kDwTpNxRCoECXrA7WoLcZ1200562021-07-27T20:01:11.874ZdrosophilaALZHEIMER'SDISEASEYES2021 Project PromotionsNOhttps://video.igem.org/w/iUKdPqtdJ4PBJiwV8rasPohttps://video.igem.org/lazy-static/thumbnails/752c8db2-2c37-4d86-a4b3-3018514f50eb.jpgWrightState: De novo alpha-terpineol production in E.coli (2021) - Project Promotion [English]**Title:** De novo alpha-terpineol production in E.coli **Description:** Mosquito-borne illnesses have tremendous impact in locations with limited resources, spreading dreadful diseases. Mosquito repellent production utilizes harsh chemicals which can have long term adverse effects on the health of the individual and the environment when used incorrectly. Our solution is “Produce to Reduce", focusing on the de novo production of  alpha-terpineol, a natural plant product, in E. coli to reduce the need for environmentally unfriendly chemicals within insect repellents. [Wiki](https://2021.igem.org/Team:WrightState)https://static.igem.org/peertube/streaming-playlists/hls/9108ab4c-fb4b-456e-88e3-b7c173bfd8fc/d1412b7c-15fa-4e43-a3b7-268dc7eb8c89-master.m3u8https://video.igem.org/videos/embed/iUKdPqtdJ4PBJiwV8rasPo1070382021-07-27T20:01:12.943ZWrightStateProducetoreduceYES2021 Project PromotionsNOhttps://video.igem.org/w/jBwG5i2Xhoh4RzPEL9kqxUhttps://video.igem.org/lazy-static/thumbnails/2719fde4-1e6d-4f84-9bb4-c7ffa37cfa7a.jpgWVHS_SanDiego_CA: Purified (2021) - Project Promotion [English]**Title:** Purified **Description:** Our project takes the systems of plants and genetically engineers them into plants that are not as salt tolerant. We modeled the HKT1 pathway and overexpressed the pathway in certain plants. We intend to increase awareness of the little-known effects of global warming that are drastically affecting coastal plants. Aridification and rising sea levels are increasing salinity levels. Increased inundation inspired us to look deeper into the plants within ecosystems. [Wiki](https://2021.igem.org/Team:WVHS_SanDiego_CA)https://static.igem.org/peertube/streaming-playlists/hls/96ba7119-0b22-4cc4-9350-3b9e97499592/b42f53c2-2e4f-497d-bfaf-fbd22cc749f1-master.m3u8https://video.igem.org/videos/embed/jBwG5i2Xhoh4RzPEL9kqxU1160402021-07-27T20:01:38.136ZHighSchoolCaliforniaYES2021 Project PromotionsNOhttps://video.igem.org/w/sHAnWr37JvdympY3wZ3pwVhttps://video.igem.org/lazy-static/thumbnails/717d9cb3-3553-4fb7-8a2e-6cec783eb60e.jpgXHD-Pro-China: Liver Savior (2021) - Project Promotion [English]**Title:** Liver Savior **Description:** Each year, a large number of people die as a result of alcohol poisoning. Our approach intends to alleviate the problem by allowing the probiotic to synthesis ADH and ALDH in the stomach and intestines, reducing the harmful effects of alcohol on the liver. [Wiki](https://2021.igem.org/Team:XHD-Pro-China)https://static.igem.org/peertube/streaming-playlists/hls/d85c493c-75bb-45ef-8422-deaf0c74825d/296c67ed-86e5-444f-89d1-32625cdb3b06-master.m3u8https://video.igem.org/videos/embed/sHAnWr37JvdympY3wZ3pwV1190152021-07-27T20:02:04.145ZYES2021 Project PromotionsNOhttps://video.igem.org/w/t6zH4qyeDdHTDWBFnGS21shttps://video.igem.org/lazy-static/thumbnails/26146d62-92be-44d0-b9f3-34b02c3d9cb7.jpgXHD-Wuhan-A-China: Nitrate Decomposer: decrease nitrate in soil with rhizobium (2021) - Project P...**Title:** Nitrate Decomposer: decrease nitrate in soil with rhizobium **Description:** In recent years, soil quality is deteriorating. We hope that soil salinization and acidification are solved through denitrification by rhizobium. In order to solve the problem, we enhance the denitrification ability of rhizobia by introducing plasmids containing nirK or napA gene. [Wiki](https://2021.igem.org/Team:XHD-Wuhan-A-China)https://static.igem.org/peertube/streaming-playlists/hls/db6e3c64-97b7-424a-9bf8-4a9fb4bd48ee/d755e44d-50c8-4e15-8beb-afa7c327bbf0-master.m3u8https://video.igem.org/videos/embed/t6zH4qyeDdHTDWBFnGS21s1200372021-07-27T20:03:38.619ZYES2021 Project PromotionsNOhttps://video.igem.org/w/4bTN5ScAZY8ghYepVUJdPYhttps://video.igem.org/lazy-static/thumbnails/3ae4a430-96f5-4adc-bf18-dcc8967dc71b.jpgXHD-Wuhan-B-China: Light Controlled Cell Division (2021) - Project Promotion [English]**Title:** Light Controlled Cell Division **Description:** Our project is to test the feasibility of achieving the control of Escherichia coli cell division with light. We are going to combine the technologies of optogenetics and CRISPRi, silencing the target genes crucial to the cell division. [Wiki](https://2021.igem.org/Team:XHD-Wuhan-B-China)https://static.igem.org/peertube/streaming-playlists/hls/19d0c5f0-ca03-46da-aaaf-e2d359beb8be/edb8e4c8-8b7e-49e0-9107-1cfd8e3b6185-master.m3u8https://video.igem.org/videos/embed/4bTN5ScAZY8ghYepVUJdPY1190432021-07-27T20:10:54.894ZYES2021 Project PromotionsNOhttps://video.igem.org/w/qgFJ2JK7W5L9sg41nSc4D6https://video.igem.org/lazy-static/thumbnails/fff66f8a-5140-4310-b8d8-4d9344f68415.jpgXHD-Wuhan-Pro-China: Liver Savior (2021) - Project Promotion [English]**Title:** Liver Savior **Description:** Each year, a large number of people die as a result of alcohol poisoning. Our approach intends to alleviate the problem by allowing the probiotic to synthesis ADH and ALDH in the stomach and intestines, reducing the harmful effects of alcohol on the liver. [Wiki](https://2021.igem.org/Team:XHD-Wuhan-Pro-China)https://static.igem.org/peertube/streaming-playlists/hls/c48bf730-1ab4-4c8c-bf80-8f42c180f54b/593673e0-0750-4498-83a7-938c203a21bb-master.m3u8https://video.igem.org/videos/embed/qgFJ2JK7W5L9sg41nSc4D61190472021-07-27T20:11:20.821ZYES2021 Project PromotionsNOhttps://video.igem.org/w/tiGstuHygZLdB3Y29WcARahttps://video.igem.org/lazy-static/thumbnails/40c051d7-ea30-43c4-9ff1-2098941b7a50.jpgXiamen_City: Pectin - degradable multifunctional wine yeast (2021) - Project Promotion [English]**Title:** Pectin - degradable multifunctional wine yeast **Description:** Our team will use CRISPR to edit the gene of wine yeast so that it can not only degrade pectin, but also ferment to produce alcohol, which may reduce the production cost. This woke is significant to the development of food industry and modern brewing engineering. [Wiki](https://2021.igem.org/Team:Xiamen_City)https://static.igem.org/peertube/streaming-playlists/hls/dd1f51f0-eb44-4412-91f6-3da12ef01a43/db12b9e0-4021-4156-8532-7b4797224dfb-master.m3u8https://video.igem.org/videos/embed/tiGstuHygZLdB3Y29WcARa1200902021-07-27T20:11:43.969ZYES2021 Project PromotionsNOhttps://video.igem.org/w/9j3Nw6jSXViYmAEkbKJ2D2https://video.igem.org/lazy-static/thumbnails/db944462-d0ab-4640-98c3-0b5a12f6e54d.jpgXJTLU-CHINA: Dr. Phage (2021) - Project Promotion [English]**Title:** Dr. Phage **Description:** Our project is designed to quantitative detect Vibrio Paraheamoliticus in the food. We establish a bistable system to achieve the purpose of quantitative detection. Edited Phages and Cell-Free system help to reduce the cost and time required for the detection method. [Wiki](https://2021.igem.org/Team:XJTLU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/434e3955-b0a3-47d7-b583-71066c1311c7/f50b8b6d-4f2d-4530-9b0e-153f2ad97fb0-master.m3u8https://video.igem.org/videos/embed/9j3Nw6jSXViYmAEkbKJ2D21200842021-07-27T20:12:12.717ZQuantitative DetectionVibrio ParaheamoliticusYES2021 Project PromotionsNOhttps://video.igem.org/w/uERj9qPJ2n2BDcYrqqjyichttps://video.igem.org/lazy-static/thumbnails/f5845813-3363-45c9-83ba-23ec5d69e377.jpgXJTU-China: Tryptophan iDream (2021) - Project Promotion [English]**Title:** Tryptophan iDream **Description:** Methods in synthetic biology are applied on E. coli to yield tryptophan which improves abnormal conditions like insomnia. A gene circuit with corresponding hardware is designed to make a domestic, portable device possible, which could be promising for patients to utilize in the coming future. [Wiki](https://2021.igem.org/Team:XJTU-China)https://static.igem.org/peertube/streaming-playlists/hls/e82c892e-57db-484d-8860-a03f6c4698f5/341f25d5-55f3-40ab-929a-3014d0e6bd0b-master.m3u8https://video.igem.org/videos/embed/uERj9qPJ2n2BDcYrqqjyic11301102021-07-27T20:12:41.159ZTryptophaninsomnia therapyYES2021 Project PromotionsNOhttps://video.igem.org/w/j5E8xUwTq41LHSE7ivATE8https://video.igem.org/lazy-static/thumbnails/2614b947-1d30-4002-a05b-5800712ca2c8.jpgXJTU-China: Tryptophan iDream (2021) - Project Promotion [Chinese]**Title:** Tryptophan iDream **Description:** Methods in synthetic biology are applied on E. coli to yield tryptophan which improves abnormal conditions like insomnia. A gene circuit with corresponding hardware is designed to make a domestic, portable device possible, which could be promising for patients to utilize in the coming future. [Wiki](https://2021.igem.org/Team:XJTU-China)https://static.igem.org/peertube/streaming-playlists/hls/926af832-1a98-4232-a1b0-2cb417db5b0f/2815817c-97d0-4414-9989-9a5063f17aa5-master.m3u8https://video.igem.org/videos/embed/j5E8xUwTq41LHSE7ivATE81130562021-07-27T20:13:10.193Zinsomnia therapyTryptophanYES2021 Project PromotionsNOhttps://video.igem.org/w/8bAhsZ9M33nTiJhPZqcb96https://video.igem.org/lazy-static/thumbnails/fe128304-5fb9-4858-a645-5682d363d304.jpgXMU-China: Salvage (2021) - Project Promotion [English]**Title:** Salvage **Description:** This is a adventure story of a little drop and his neighbors, with the help of genetically modified organisms, they successfully salvage the nuclear plant from fever. [Wiki](https://2021.igem.org/Team:XMU-China)https://static.igem.org/peertube/streaming-playlists/hls/3a2a8958-fc4c-4053-8c05-a1ab956a34d5/73bdf6c4-c9c7-47e1-81ef-e4f72b803a01-master.m3u8https://video.igem.org/videos/embed/8bAhsZ9M33nTiJhPZqcb9611601372021-07-27T20:13:11.143ZvibrionatriegensnuclearpowerplantYES2021 Project PromotionsNOhttps://video.igem.org/w/vRvCp5ZYbBqpBA2QCDN2Ychttps://video.igem.org/lazy-static/thumbnails/ffe31df8-99c0-4a93-b10e-444f4f2809fc.jpgYiYe-China: Non invasive diagnosis of colorectal cancer (2021) - Project Promotion [English]**Title:** Non invasive diagnosis of colorectal cancer **Description:** Colorectal cancer (CRC) is one of the most common cancers.Though we have many CRC detection methods like CT scan colonoscopy, etc., they all have limitations and make people feel uncomfortable. Therefore, we are interested in developing a non-invasive method to help diagnosis CRC in the future. [Wiki](https://2021.igem.org/Team:YiYe-China)https://static.igem.org/peertube/streaming-playlists/hls/f1c2b978-ac41-4605-ae8f-208f72aced5f/e4d598ad-3d9c-4efe-a31a-3ea8c8a2689d-master.m3u8https://video.igem.org/videos/embed/vRvCp5ZYbBqpBA2QCDN2Yc1200692021-07-27T20:13:44.345Z#high school track#diagnosisYES2021 Project PromotionsNOhttps://video.igem.org/w/fYwa448T5yGCbzovJtBmvvhttps://video.igem.org/lazy-static/thumbnails/2749f7f6-2dfd-4eb1-b4be-0bffc2163d64.jpgYonsei_Korea: UNTITLED (2021) - Project Promotion [English]**Title:** UNTITLED **Description:** This video introduces the world to Yonsei_Korea's 2021 IGEM project! [Wiki](https://2021.igem.org/Team:Yonsei_Korea)https://static.igem.org/peertube/streaming-playlists/hls/79442d3c-83ae-4fb3-a6ae-935d8039df27/fffdd75e-adc9-44d4-8b72-ba688051dc9e-master.m3u8https://video.igem.org/videos/embed/fYwa448T5yGCbzovJtBmvv9801182021-07-27T20:14:15.331ZYES2021 Project PromotionsNOhttps://video.igem.org/w/k87PWR1tQmEjmANeUQhKSKhttps://video.igem.org/lazy-static/thumbnails/6d2c1990-0ae2-4d18-a929-964f36f61932.jpgYonsei_Korea: UNTITLED (2021) - Project Promotion [Korean]**Title:** UNTITLED **Description:** This video introduces the world to Yonsei_Korea's 2021 IGEM project! [Wiki](https://2021.igem.org/Team:Yonsei_Korea)https://static.igem.org/peertube/streaming-playlists/hls/9adc0c49-d043-4c56-8d88-4900426530cb/baa7c106-a1ae-46c3-8d5f-88c405b27e2c-master.m3u8https://video.igem.org/videos/embed/k87PWR1tQmEjmANeUQhKSK1080592021-07-27T20:14:16.617ZYES2021 Project PromotionsNOhttps://video.igem.org/w/38gaYLB59ZzkevMfSiJVnrhttps://video.igem.org/lazy-static/thumbnails/db97dccc-7fc3-45a3-ad0a-69e79fb81b1d.jpgYucai_SZ: A composite material for fresco restoration based on engineered E.coli (2021) - Project...**Title:** A composite material for fresco restoration based on engineered E.coli **Description:** The restoration of traditional frescos is a difficult process. Our project is to operate the modified E.coli which can be induced by blue light to produce a layer combined calcium carbonate, pigment and adhesive directly at the damaged position of the fresco. After the combination of these three a micron level colored calcium layer will be formed on the wall surface, so as to repair the damaged frescos. [Wiki](https://2021.igem.org/Team:Yucai_SZ)https://static.igem.org/peertube/streaming-playlists/hls/1135d575-02ca-44ec-969b-5790f56ba22f/be4dbc0d-8702-4280-a1f0-820f1af6b495-master.m3u8https://video.igem.org/videos/embed/38gaYLB59ZzkevMfSiJVnr11001522021-07-27T20:14:49.362ZYES2021 Project PromotionsNOhttps://video.igem.org/w/cK5Aw79DQWxjb1nQJet6Aphttps://video.igem.org/lazy-static/thumbnails/8c7bb589-85e8-4a50-82b1-6a0e1da91fbc.jpgZJU-China: Liver Guard: Precise therapy of hepatocellular carcinoma based on eng... (2021) - Proj...**Title:** Liver Guard: Precise therapy of hepatocellular carcinoma based on engineered OV **Description:** Oncolytic virus(OV) is a method to treat HCC, yet it hasn't been widely used for some reasons. Our project designed a genetically modified OV using biology way to solve problems and enables it to escape from immunity trap. Hopefully, our project can give a new insight into therapy of HCC. [Wiki](https://2021.igem.org/Team:ZJU-China)https://static.igem.org/peertube/streaming-playlists/hls/5f1856d8-24fc-4442-8616-8be5b3062e47/255aed89-d07e-4797-a59d-6b77f3091c57-master.m3u8https://video.igem.org/videos/embed/cK5Aw79DQWxjb1nQJet6Ap12005532021-07-27T20:15:36.422ZAsia, Therapeutics, ChinaYES2021 Project PromotionsNOhttps://video.igem.org/w/qgfpuHjrEcw1JgiY8o75y8https://video.igem.org/lazy-static/thumbnails/39aff60c-1e56-4821-bd76-cd389c259e1b.jpgZJUT-China: A portable diagnostic platform based on RNA biomarkers (2021) - Project Promotion [En...**Title:** A portable diagnostic platform based on RNA biomarkers **Description:** Various diseases have their RNA biomarkers, which can be used for diagnosis and prognosis. Based on that, we are developing a cell-free biosensor for the detection of RNA biomarkers in urine or blood. We hope our project will provide patients with a simple, safe, low-cost diagnostic method. [Wiki](https://2021.igem.org/Team:ZJUT-China)https://static.igem.org/peertube/streaming-playlists/hls/c47c5ca1-8b59-475f-a445-066da06af307/d03bf859-8a38-415e-989c-18ee977976b9-master.m3u8https://video.igem.org/videos/embed/qgfpuHjrEcw1JgiY8o75y812002682021-07-27T20:16:07.789Zrna biomarkercell-free biosensorYES2021 Project PromotionsNOhttps://video.igem.org/w/rgo1c8N17Xq34oXHkp7wgxhttps://video.igem.org/lazy-static/thumbnails/33439471-8769-4f42-aaae-cf93dce27d20.jpgBiosafety and Biosecurity by Design{ "speakerId": "4", "description": "Former professional robot maker Tessa spends more time wondering how to get biologists to engineer the right things. She helps iGEM teams think carefully and creatively about managing any risks to themselves, their colleagues, their community, or the environment. Learn with Tessa the main concepts in biosafety and biosecurity." }https://static.igem.org/peertube/streaming-playlists/hls/cc9a2edd-c17a-4de9-a464-4b1921a52fbd/b6aaf35f-5c8e-429f-9923-3860a7067d72-master.m3u8https://video.igem.org/videos/embed/rgo1c8N17Xq34oXHkp7wgx100902572021-07-27T17:33:08.154ZYESiGEM AcademyNOhttps://video.igem.org/w/9W2SemrfpD7dXXz3Cp2Ef9https://video.igem.org/lazy-static/thumbnails/ddd80682-1bc0-43f7-91be-4b0aed6591c2.jpgLearning engineering as a biologist{ "speakerId": "3", "description": "Professor Dr. Pamela Silver will guide you through her marvelous story, motivation, and research. Learn about how she pioneered Cellular Biology and became one of the founding minds of the Synthetic Biology field." }https://static.igem.org/peertube/streaming-playlists/hls/48546c3f-afa4-4b69-bdc7-3d1150b66ba4/7fa0e3d2-5d92-4304-b998-d20010b04693-master.m3u8https://video.igem.org/videos/embed/9W2SemrfpD7dXXz3Cp2Ef977803862021-07-27T18:00:39.456ZYESiGEM AcademyNOhttps://video.igem.org/w/vjm2WGL8kLiGozzkaPH7cAhttps://video.igem.org/lazy-static/thumbnails/e792ca3e-cdf3-42f8-8084-08f0e9d95de7.jpgBioFounder Book Club (Ep #2) - The Lean StartupBioFounder Book Club (Ep #2) - The Lean Startuphttps://static.igem.org/peertube/streaming-playlists/hls/ed68c14d-34e9-4f7f-98d2-1c9427adc0b0/7718dad6-396b-4e31-8863-ea73ad7259b3-master.m3u8https://video.igem.org/videos/embed/vjm2WGL8kLiGozzkaPH7cA3590082021-07-27T18:08:30.948ZYESiGEM TVNOhttps://video.igem.org/w/kfxeeMUoz6u7Wts3BtK8Puhttps://video.igem.org/lazy-static/thumbnails/eed1cc55-12a8-4aaa-b83c-dd8a6070bd6c.jpgInnovation in the era of biology by design{ "speakerId": "7", "description": "Andrew Hessel is a catalyst. He is a visionary who believes that synthetic biology will change the world. At the frontier, Andrew shows us how the future of biology will look like: it is designed. Andrew highlights why digital tools are transforming biology and challenges you to join this revolution." }https://static.igem.org/peertube/streaming-playlists/hls/9be54adb-0e5f-4798-8d85-344eae82fd86/ec183665-111a-4d7b-bab6-8f931193e8ab-master.m3u8https://video.igem.org/videos/embed/kfxeeMUoz6u7Wts3BtK8Pu234902292021-07-27T18:52:47.370ZYESiGEM AcademyNOhttps://video.igem.org/w/7D3PyFzofMzqMDcGRmAuuahttps://video.igem.org/lazy-static/thumbnails/fe623e42-44e2-4135-8f46-1db6bb69ea8c.jpgLearning biology as an engineer{ "speakerId": "2", "description": "As a computer engineer, Tom Knight saw in biology the power to become the next big technology. Discover the beginning of synthetic biology with Tom Knight. Tom reveals details on the story of creating a Microbiology Laboratory in the middle of the Computer Science and Artificial Intelligence Department at MIT. Learn with Tom Knight how to study and become an expert in all the things that interest you." }https://static.igem.org/peertube/streaming-playlists/hls/35c316e1-329c-4a7c-a05b-74aae7fc9501/af9b5cf7-7289-49f0-b041-f85238bf1fad-master.m3u8https://video.igem.org/videos/embed/7D3PyFzofMzqMDcGRmAuua223803502021-07-27T19:50:08.350ZYESiGEM AcademyNOhttps://video.igem.org/w/eYfXoYHsvcceHWcaivCz5Bhttps://video.igem.org/lazy-static/thumbnails/11005dd7-ca4c-40d3-8dcb-419720ddfa49.jpgWriting DNA at scale{ "speakerId": "1", "description": "Dr. Emily tells her story, the challenges she encountered, and her motivations to become an entrepreneur. Emily explains the role of a Chief Executive Officer and how she innovated DNA synthesis by optimizing the scale at Twist. Showcasing her visionary strategy, Emily highlighted her process of getting a new product to market using Twist's unique capabilities to synthesize DNA." }https://static.igem.org/peertube/streaming-playlists/hls/7121ab8c-6f59-4d7d-a9c4-27180507127f/d391cfbc-f595-43cf-92f3-b994916bd2d1-master.m3u8https://video.igem.org/videos/embed/eYfXoYHsvcceHWcaivCz5B79702632021-07-27T20:08:03.953ZYESiGEM AcademyNOhttps://video.igem.org/w/qCxW9fd5eBHoKw6Bv5XYYYhttps://video.igem.org/lazy-static/thumbnails/333ab864-276d-4a21-aada-00c60cb564d1.jpgSynthetic biology is for everybody{ "speakerId": "14", "description": "Jake tells his story and passions. Bringing his perspective on the social impact of biotech, Jake explores how synthetic biology can be a tool beyond the lab when powered by policy, communication, and education. Jake explains his journey and motivation to engage in global public health by discovering low-cost drugs to treat neglected diseases." }https://static.igem.org/peertube/streaming-playlists/hls/c775c884-573f-4d71-adea-decd0dc32e00/16d52603-58df-4a99-ab16-c57eb80d8436-master.m3u8https://video.igem.org/videos/embed/qCxW9fd5eBHoKw6Bv5XYYY186702172021-07-28T17:55:01.266ZYESiGEM AcademyNOhttps://video.igem.org/w/aRaafWDG84Q3tKcGYKEDFrhttps://video.igem.org/lazy-static/thumbnails/f73e3c5b-9017-43f6-81c7-06aba91fbff0.jpgNature as inspiration for innovation{ "speakerId": "8", "description": "David's passion for biomaterials began exploring the complex properties of spider silk during his Bioengineering Ph.D. at UC Berkeley. His research paved the way for the development of the technology platform at Bolt Threads. He explains his story, the creative design process he implemented at Bolt Threads, and how scaling manufacturing can be a significant bottleneck to the commercialization of bio-based products." }https://static.igem.org/peertube/streaming-playlists/hls/4fbf5665-4483-4378-9e27-f42ca92eec43/305da713-3504-40c4-9e8a-2070aed82b48-master.m3u8https://video.igem.org/videos/embed/aRaafWDG84Q3tKcGYKEDFr131001982021-07-28T22:34:20.030ZYESiGEM AcademyNOhttps://video.igem.org/w/6X1mhMRgdPUuiKpCqqdwnwhttps://video.igem.org/lazy-static/thumbnails/4c6900f6-0049-45e5-b8ed-ae0de5bf4f2e.jpgReading and editing DNA{ "speakerId": "11", "description": "Professor George Church is one of the top leaders in synthetic biology. He guides us from the history of DNA sequencing, writing, and editing back in the 80s to how his lab is today at the frontiers of science, pushing the boundaries of innovation. Professor Church opens the door of his lab, explaining the main questions he is solving. Learn about his story, motivation, and pioneering research." }https://static.igem.org/peertube/streaming-playlists/hls/302bd0f4-acc6-4c4a-a19b-dcb6f4cf20f8/4240dcf3-e324-496f-9c5f-5ea8153a2084-master.m3u8https://video.igem.org/videos/embed/6X1mhMRgdPUuiKpCqqdwnw137503012021-07-29T23:20:42.456ZYESiGEM AcademyNOhttps://video.igem.org/w/1Eoaibk9Cm7qVAxXeoCMyehttps://video.igem.org/lazy-static/thumbnails/c02b27df-4e4f-4926-8362-490035821a2f.jpgResponsibility by design{ "speakerId": "15", "description": "Zoë explores her main concepts in moral responsibility, ownership, and her framework to design better with and for society. Learn with Zoë the main questions to create a project Safe-by-Design. Learn how to measure the implications of your project with Professor Zoë." }https://static.igem.org/peertube/streaming-playlists/hls/055beb86-3d3d-40cc-81c9-46d7ed672e01/301c60dc-b946-4fc6-b8e8-c1b0c81a5a64-master.m3u8https://video.igem.org/videos/embed/1Eoaibk9Cm7qVAxXeoCMye177602472021-07-30T21:15:51.970ZYESiGEM AcademyNOhttps://video.igem.org/w/qLe1YudESCzbtS2fkTCyL8https://video.igem.org/lazy-static/thumbnails/fe178be8-662f-48a9-b209-b665097e2899.jpgiGEM News (Ep #2) - July 2021iGEM News is your monthly source of breaking news and exciting stories in the iGEM and Synthetic Biology world. In our second episode you will hear about: The launching of After iGEM collaborative space on JOGL SynBio associations from all over the world assembling together through SynBio United Forbes spotlighting an iGEM team And many other thrilling topics. Join our hosts Soumodeep, Hassnain, and Sayantani to keep updated about the ever-changing iGEM world.https://static.igem.org/peertube/streaming-playlists/hls/c888135a-af85-4fae-b4e6-c12ab6c2f32f/fd97806d-db28-4c9a-9a2a-b99d930b1c8b-master.m3u8https://video.igem.org/videos/embed/qLe1YudESCzbtS2fkTCyL84050182021-08-02T15:58:52.321ZYESiGEM TVNOhttps://video.igem.org/w/9perRq29LuZhstdBQAP8mKhttps://video.igem.org/lazy-static/thumbnails/96361b82-83f7-4665-bd70-d68c7b6cac01.jpgIstanbul_United: Water is in danger! (2021) - Project Promotion [English]**Warning:** This video has no captions. **Title:** Water is in danger! **Description:** As an approved iGEM 2021 team, we aim to solve the heavy metal pollution that disrupts the ecological balance and causes the extinction of many living species in the aquatic ecosystem by transferring the bioremediation gene obtained from living things such as algae, tardigrade, or hyperaccumulator plants to the E.coli bacterium. Our purpose is to create a safe and secure environment for living beings by purifying water from heavy metals. [Wiki](https://2021.igem.org/Team:Istanbul_United)https://static.igem.org/peertube/streaming-playlists/hls/44078090-ee86-4fb6-9053-8ad2c325d7e7/67c71be2-9717-4422-961e-a6bb44dc0dff-master.m3u8https://video.igem.org/videos/embed/9perRq29LuZhstdBQAP8mK830852021-08-03T13:46:02.424ZYES2021 Project PromotionsNOhttps://video.igem.org/w/jg6MqTknNZzecUYUTaZTnphttps://video.igem.org/lazy-static/thumbnails/691f7d70-e097-4c42-acf9-dd88b83d1709.jpgIISER_TVM: Moldemort (2021) - Project Promotion [English]**Title:** Moldemort **Description:** We are developing novel, broad-spectrum, and eco-friendly protein-engineered therapeutics against a range of invasive fungal infections. Our engineered antifungal enzymes combine the substrate specificities of their constituent parts, making them effective against a range of disease-causing fungi. Our design allows the application of the same principles to any other scenario affecting from harmful fungal contamination. [Wiki](https://2021.igem.org/Team:IISER_TVM)https://static.igem.org/peertube/streaming-playlists/hls/93e0376b-e592-4be6-a5d4-7c646db7a95d/8ca35394-d772-4b6d-9222-4b589b63a2d8-master.m3u8https://video.igem.org/videos/embed/jg6MqTknNZzecUYUTaZTnp11903132021-08-03T14:07:39.788ZTherapeuticsFungusYES2021 Project PromotionsNOhttps://video.igem.org/w/t8kTFfRLeAQbJrvbyd8kSLhttps://video.igem.org/lazy-static/thumbnails/67cbf7ba-8e42-4474-96ee-7fb3ccdbad53.jpgNOVA_LxPortugal: P(L)AST (2021) - Project Promotion [English]**Title:** P(L)AST **Description:** Our main focus, reducing microplastics in the ocean, is one of the biggest concerns worldwide. To do so, we use bacterias that already have a natural ability to biodegrade plastics, enhancing it using optimized genes and modeling. [Wiki](https://2021.igem.org/Team:NOVA_LxPortugal)https://static.igem.org/peertube/streaming-playlists/hls/dbad355d-bce3-403d-9082-d1409241e104/aac92536-280e-41f2-b100-121ed2ba2d24-master.m3u8https://video.igem.org/videos/embed/t8kTFfRLeAQbJrvbyd8kSL12001142021-08-03T14:25:24.785ZYES2021 Project PromotionsNOhttps://video.igem.org/w/gTNESA5deaYjCBQq1sjTkahttps://video.igem.org/lazy-static/thumbnails/507ca7a0-f549-4553-bfb0-5b6a9586a523.jpgiGEM Podcasts: Trailer - #SynBio Podcast, iGEMers of The World PodcastImmerse yourself in the audio documentary, where multiple layers of synthetic biology are explored through exciting stories. igem.fm "Digital Synthetic Biology journalism combines the creativity of writing and media with the intellectual fascination of the field. The goal of iGEM podcasts is to provide a platform through which the worldwide SynBio community can communicate, share ideas, debate and engage with central SynBio ideas and innovations." - Zeeshan Siddiqui, Host of iGEM Podcastshttps://static.igem.org/peertube/streaming-playlists/hls/80b4c611-c867-4b00-94f0-94ebca987df3/29e9b305-5840-4d47-a788-a98a73dd4710-master.m3u8https://video.igem.org/videos/embed/gTNESA5deaYjCBQq1sjTka490912021-08-04T10:16:51.648ZsynbiopodcastYESiGEM FoundationNOhttps://video.igem.org/w/85keojMMyTxHFQ1c8rV6W4https://video.igem.org/lazy-static/thumbnails/388ab83f-2a98-4b04-bc76-781875b5183f.jpgBHSF: Biosynthetic Carminic Acid (2021) - Project Promotion [English]**Title:** Biosynthetic Carminic Acid **Description:** There is a huge market demand for natural red dye, which cannot be met now. With our project, carminic acid can be produced by E.coli in a more productive way with less controversy. [Wiki](https://2021.igem.org/Team:BHSF)https://static.igem.org/peertube/streaming-playlists/hls/394acc0d-cc17-45c7-b35b-50a70f5ceceb/25c6a8a5-d6f1-43f8-9207-b94e04524bb8-master.m3u8https://video.igem.org/videos/embed/85keojMMyTxHFQ1c8rV6W410202402021-08-04T14:23:35.186Ze.coliYES2021 Project PromotionsNOhttps://video.igem.org/w/iCWExGgWXHm642P28VXuRfhttps://video.igem.org/lazy-static/thumbnails/9dd5defc-5322-4c62-9d00-0c6c6c6d0664.jpgNavarra_BG: aRadiamars (2021) - Project Promotion [English]**Warning:** This video has no captions. **Title:** aRadiamars **Description:** Humanity began its scientific and technological progress by wondering about the wonderful starry sky that covered the first settlements with darkness every night. The decendents of the humans who began to cultivate and live in society are the ones nowdays, who are capable of raising crops using synthetic biology. We are inspired by Martian exploration to provide solutions to the explorers who will travel to space soon. Those solutions could also help our planet, Earth. [Wiki](https://2021.igem.org/Team:Navarra_BG)https://static.igem.org/peertube/streaming-playlists/hls/8ed3d239-b203-4a3b-8927-76fee9864c20/817a4392-eb6e-49c1-a077-21d56f13d073-master.m3u8https://video.igem.org/videos/embed/iCWExGgWXHm642P28VXuRf12001172021-08-04T14:33:23.733ZCSIC-IDABPLANETASTEMYES2021 Project PromotionsNOhttps://video.igem.org/w/2NXTNzq7m8Z2S6XX4z7knahttps://video.igem.org/lazy-static/thumbnails/5c52bfeb-6a75-4898-acbd-cc3452eccaf4.jpgScience communication: Bridging the gap between science and the publicSciComm Workshop at Canadian iGEM 2020 Conference on October 3, 2020.https://static.igem.org/peertube/streaming-playlists/hls/0ea7cc26-695a-4e53-89e1-fb5e37c69997/a538e59b-6273-445a-9ac1-26e171a2ba39-master.m3u8https://video.igem.org/videos/embed/2NXTNzq7m8Z2S6XX4z7kna2581072021-08-08T00:35:42.327ZYESiGEM CommunityNOhttps://video.igem.org/w/wziVyBsAVy7m9eAjKh5HkShttps://video.igem.org/lazy-static/thumbnails/2ff584b2-93ad-444b-9fca-62351b5cec25.jpgCommunicating science to policymakers: Bridging the gap between science and policySciComm Workshop presented at Science Policy Hackathon on September 12, 2020.https://static.igem.org/peertube/streaming-playlists/hls/f798bffc-cd34-4129-bc40-b753aece8d44/f65ffcd4-21ef-4fd5-a580-533276846e6b-master.m3u8https://video.igem.org/videos/embed/wziVyBsAVy7m9eAjKh5HkS34530342021-08-08T00:49:44.607ZYESiGEM CommunityNOhttps://video.igem.org/w/aMwNT6eBryGs8xG5avXD51https://video.igem.org/lazy-static/thumbnails/d7f54316-4375-449d-bd06-c3b0267748cb.jpgHUST-China: Mr.Tony (2021) - Project Promotion [English]**Warning:** Disclaimer: no modified organisms, nor any product from the team’s project, was sprayed onto humans during the making of this video. **Title:** Mr.Tony **Description:** We design an engineering yeast which can secrete peptides and/or pigments to perm and dye people's hair without harm and it can also straight hair and decompose pigments. Now our promo tells the story of an agent who recaptured our product after it was stolen by a mysterious organization and used it to escape capture. [Wiki](https://2021.igem.org/Team:HUST-China)https://static.igem.org/peertube/streaming-playlists/hls/4f3db431-1107-4ee7-9ec3-4d16bb5ffd24/c840c65b-063e-4110-aff7-f9b60cc2f8e7-master.m3u8https://video.igem.org/videos/embed/aMwNT6eBryGs8xG5avXD5111903872021-08-10T11:30:51.603Zperming and dying hairagent escapeYES2021 Project PromotionsNOhttps://video.igem.org/w/tfDwiZef9vvHfWCanh38PXhttps://video.igem.org/lazy-static/thumbnails/c67191f7-cf75-4167-aade-628b4466955b.jpgPatras: PGasus (2021) - Project Promotion [English]**Title:** PGasus **Description:** Project PGasus has a very specific goal. Our goal is to create a comprehensive pharmacogenetics panel via whole pharmacogene sequencing to propose the proper adjustment of drug dosage. We will use a portable NGS device in a compact size to parallel sequence common, rare and novel variants. [Wiki](https://2021.igem.org/Team:Patras)https://static.igem.org/peertube/streaming-playlists/hls/dcb247dd-05f7-4537-8744-72d302ee2289/d66a746c-9a31-41f3-9ef2-5790e7807e46-master.m3u8https://video.igem.org/videos/embed/tfDwiZef9vvHfWCanh38PX12002272021-08-10T11:33:02.251ZPHARMACOGENOMICSYES2021 Project PromotionsNOhttps://video.igem.org/w/mXLMxwvGhxZBWzo7ndDHfxhttps://video.igem.org/lazy-static/thumbnails/63f05811-3762-4f22-b339-b1544198c2b5.jpgSMS_Shenzhen: It's GUM! (2021) - Project Promotion [English]**Warning:** No modified organisms, nor any product from the team’s project, was sprayed onto humans during the making of this video. **Title:** It's GUM! **Description:** Gums stick on everywhere, damaging city scape, consuming huge material resources. In a word, we aim to let the "sticky" gums on the ground disappear! From eliminating aspect, we will design a liquid gum cleaner with enzyme to clean up the gums. From preventing aspect, we will design a self-degrading gum. From these aspects, our project will improve city environment and reduce cleaning cost. We are excited to contribute to the world's sustainable development. It's gum, but it's gone! [Wiki](https://2021.igem.org/Team:SMS_Shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/a9c047ca-4dda-4aff-aab7-eed57e8a9637/86c5a5e4-fc49-4020-a6f2-5bd9afa1faf3-master.m3u8https://video.igem.org/videos/embed/mXLMxwvGhxZBWzo7ndDHfx120016532021-08-10T11:33:03.268ZGumdegradationYES2021 Project PromotionsNOhttps://video.igem.org/w/sHnbgwL7hJqBt5i6cN86Mghttps://video.igem.org/lazy-static/thumbnails/91a30844-d71a-45b9-943e-a7e0b0a54c3c.jpgUNIZAR: RECONBY (2021) - Project Promotion [English]**Warning:** No modified organisms, nor any product from the team’s project, was injected into humans. **Title:** RECONBY **Description:** Our team aims to tackle the problematic that obtaining antibodies from animals is an expensive strategy. We want to mimic nature by developing a new technique of nanobodies generation based on the recombination of V, D and J genic fragments. These newly created nanobodies will be expressed in the surface of E. coli and their antigen binding capacity tested. [Wiki](https://2021.igem.org/Team:UNIZAR)https://static.igem.org/peertube/streaming-playlists/hls/d8542689-af85-4601-b449-f773230a498d/b8fb98d6-6fa3-47a8-acbc-c2cf8bd34167-master.m3u8https://video.igem.org/videos/embed/sHnbgwL7hJqBt5i6cN86Mg12003602021-08-10T11:34:28.914ZrecombinationnanobodyYES2021 Project PromotionsNOhttps://video.igem.org/w/qY3NzuJrKJtaXZr3Gb3t8shttps://video.igem.org/lazy-static/thumbnails/705b043a-659d-4073-ac97-c5f863db4ea1.jpgDiscovering Open Software with María Sol Verniers - Open Talks #1The term Software refers to the code we use to give orders to a computer. In iGEM projects, they can help from the design of an important piece of engineering for the project, or even in modeling the behavior of microorganisms. The Open Software movement is one of the most important in the world for the democratization of knowledge and the freedom of users. Let's get introduced to Open Software and learn how we can implement it in our own projects! Join the tech expert and digital designer María Sol Verniers. Find more info: https://igem.org/After_iGEM/Networks/Accessibility/OpenTalkshttps://static.igem.org/peertube/streaming-playlists/hls/ca2eb4d7-18be-4fd3-a690-fa42de333a6c/ab5cbc27-b778-4300-be93-e9d4ad54539c-master.m3u8https://video.igem.org/videos/embed/qY3NzuJrKJtaXZr3Gb3t8s33200312021-08-11T21:51:56.786ZAfter iGEMOpen SoftwareOpen ScienceYESiGEM CommunityNOhttps://video.igem.org/w/ekB5j3f7qGmMt8MkzkXrLdhttps://video.igem.org/lazy-static/thumbnails/4d1958c9-d7a6-4ccd-a58e-b0292995309c.jpgUSAFA: PFAS Bioremediation (2021) - Project Promotion [English]**Title:** PFAS Bioremediation **Description:** Team USAFA is attempting to use bioremediation techniques to tackle the rising PFAS problem in our region, country and world. [Wiki](https://2021.igem.org/Team:USAFA)https://static.igem.org/peertube/streaming-playlists/hls/6c038cae-2723-4ce7-985b-0a9f52e4db30/55c7bbce-873b-4da6-8d41-c2ac41ec8ef0-master.m3u8https://video.igem.org/videos/embed/ekB5j3f7qGmMt8MkzkXrLd10905302021-08-13T11:36:57.598ZYES2021 Project PromotionsNOhttps://video.igem.org/w/tYHTtu8PQGxBtuGB1NFAWFhttps://video.igem.org/lazy-static/thumbnails/25830b11-4ab5-4002-b925-fe6ac98afeeb.jpgDiscovering Open Licenses with Dr. Linda J Kahl - Open Talks #3#3 Discovering Open Licenses Dr. Linda J Kahl is a strong advocate for biotechnology in the public interest and open access. As a senior counsel for BioBricks Foundation, she led the development of the Open Material Transfer Agreement. Join her on Aug 14th and learn about Open Licenses in Biotechnology! The Open Talks Series consists of a set of lectures with speakers involved in open (bio) sciences and technologies, specifically in the scope of hardware, software, licenses and open innovation. The project is led by the Steering Group of iGEM Open Science & Accessibility Network. Find more info: https://igem.org/After_iGEM/Networks/Accessibility/OpenTalkshttps://static.igem.org/peertube/streaming-playlists/hls/e2923582-2139-4d18-9892-821670805ce3/45c5cf30-4e3b-4a7c-8e0e-1a5afb97d742-master.m3u8https://video.igem.org/videos/embed/tYHTtu8PQGxBtuGB1NFAWF35890212021-08-14T15:16:33.180ZYESiGEM CommunityNOhttps://video.igem.org/w/u5pGY3sijdw8LRaVPbzoHWhttps://video.igem.org/lazy-static/thumbnails/2f567680-cbc8-4248-8a6d-dab4ba77b9e9.jpgPublic policy towards a bio-safe future in Latin America{ "speakerId": "13", "description": "Dr. Natalhie leads one of Latin America's most influential biosecurity and biosafety institutions. Natalhie will guide you through her devotion to development, innovation, biosecurity, and technology by public policy. Shaping México City policy and setting the example to all Latin America on safe, ethical, and sustainable bioeconomy and biotechnology development." }https://static.igem.org/peertube/streaming-playlists/hls/e35d7793-8c48-4928-a968-bbcdb2222380/ba61c84b-f320-4548-9519-39ac25e02c7c-master.m3u8https://video.igem.org/videos/embed/u5pGY3sijdw8LRaVPbzoHW288601682021-08-16T19:00:58.285ZYESiGEM AcademyNOhttps://video.igem.org/w/56RzWeM6CsRw1tc1EMoYeNhttps://video.igem.org/lazy-static/thumbnails/288030e4-2d4a-46ef-9e42-3165aa8960f8.jpgSynthetic biology: a field, a community, an approach{ "speakerId": "17", "description": "Professor Dr. Megan Palmer will guide you through the core mission of Human Practices. She explains her story and motivation and how social, political, and ethical questions can be integrated with every aspect of your project. Get inspired by the leading mind shaping the way in which you can meaningfully and carefully consider how your design affects the world and how the world affects your design." }https://static.igem.org/peertube/streaming-playlists/hls/2135d4d5-be23-41d8-ab2f-c6c3a455d280/f5e2dc44-aa8b-47fe-a4d8-ba22ab771cb8-master.m3u8https://video.igem.org/videos/embed/56RzWeM6CsRw1tc1EMoYeN135902112021-08-16T19:21:20.817ZYESiGEM AcademyNOhttps://video.igem.org/w/1qJJ13KtZxHFxVqKxqCoo8https://video.igem.org/lazy-static/thumbnails/3afb5c8a-c1b1-438f-bb66-c1a65556fc10.jpgDesigning the future at local scale{ "speakerId": "20", "description": "Dr. Vivanco is bringing digital futures to Latin America. To manufacture a better world, Tomás will guide you to promote the intersection between technology, social science, sustainability, and the environment through a creative process. By Design. Digitally-manufactured." }https://static.igem.org/peertube/streaming-playlists/hls/03742e1f-e555-42a0-8eb7-3d7a651bc35b/d8275b96-73b9-4e48-8f62-d71000c9b69b-master.m3u8https://video.igem.org/videos/embed/1qJJ13KtZxHFxVqKxqCoo8247302262021-08-16T19:53:30.443ZYESiGEM AcademyNOhttps://video.igem.org/w/eSnmqneeH4xhEkHRckc4GFhttps://video.igem.org/lazy-static/thumbnails/dcb97285-1e95-4b68-acb8-4bc94625241f.jpgStrategy meets biology{ "speakerId": "16", "description": "A rare combination of scientist and award-winning copywriter, Karl has a long tenure working with startups and Fortune 10 life sciences companies developing technologies that disrupt markets. Here, Karl will guide you to define the future of biotechnology. Get inspired by Karl's insights, from how business models have evolved in synthetic biology to how you can determine the bio-strategy of your own project. Strategy, marketing, and storytelling in biology in a way you haven't seen before." }https://static.igem.org/peertube/streaming-playlists/hls/704f2656-bc6d-4f1d-b136-efa15efc6e2b/d9313b9e-26f9-4551-8d6b-9767523c64f7-master.m3u8https://video.igem.org/videos/embed/eSnmqneeH4xhEkHRckc4GF204401442021-08-16T20:01:30.170ZYESiGEM AcademyNOhttps://video.igem.org/w/9yRjVqavMaYRWp5o3oymCQhttps://video.igem.org/lazy-static/thumbnails/cf493740-1b4c-41af-9bd7-1caa9b809b86.jpgThe power of synthetic biology by design{ "speakerId": "5", "description": "Dr. Jake is an electrical and computer engineer that builds and develops software to design and predict cellular behavior using mathematical models. Jake will guide you through developing a mathematical view of the cell. Jake will teach you how predictive models can empower biology by design and to measure living machines. Jake will teach you concepts such as reproducibility, models, design automation, and high-level cell programming." }https://static.igem.org/peertube/streaming-playlists/hls/455f4eeb-c9fa-4873-99f9-49b1d9b35948/0e7b8e6c-1aae-44e4-8161-df832eea8090-master.m3u8https://video.igem.org/videos/embed/9yRjVqavMaYRWp5o3oymCQ183301972021-08-16T20:42:57.042ZYESiGEM AcademyNOhttps://video.igem.org/w/9zE5RFcU8PX9jRFrBA1tihhttps://video.igem.org/lazy-static/thumbnails/191003c6-c8ff-4a0d-82ca-bdca765a21b7.jpgFrom scientist to entrepreneur{ "speakerId": "9", "description": "Dr. Jun believes the future is everyone's to create. Jun shares the world-class insights from a leading executive in a life science accelerator. What is an innovative project? How to turn ideas into businesses? Get inspired and find your true self, motivation, and what drives your passion for science. " }https://static.igem.org/peertube/streaming-playlists/hls/457c1fa5-d161-429c-aa32-2c61f3f15a76/69c4f2f2-861e-4f3c-bb63-13a063ab8045-master.m3u8https://video.igem.org/videos/embed/9zE5RFcU8PX9jRFrBA1tih189051622021-08-16T20:50:44.707ZYESiGEM AcademyNOhttps://video.igem.org/w/u4QH3k5RTXJz8My1Nsnsr7https://video.igem.org/lazy-static/thumbnails/4ad66a64-95d0-4e83-99e5-09e591430f04.jpgCommunity-led open-source innovation for all{ "speakerId": "12", "description": "Maria Chavez believes that innovations in biology should be accessible, affordable, and open to everyone. Get inspired by how Maria turns community-led ideas into open-source projects impacting our lives, such as the Real Vegan Cheese and Open Insulin. 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To stay updated about the upcoming releases on iGEM TV connect with us on Instagram and Twitter: @igem_tv You can find some of the projects we discussed here: https://igem.org/After_iGEM/Networks/Science-Communication​ https://igem.org/After_iGEM/Networks/Education​ https://igem.org/After_iGEM/Initiatives/Mentors-Network​ https://2021.igem.org/Teams/Mentorship​ https://igem.org/After_iGEM/Digest​ You can watch related content here: Science Communication Careers: An Exploratory Journey - After iGEM Communications Committee​ https://video.igem.org/w/96VCawg6LsuFBVQKmowbDN​ Capturing stories of iGEMers: The After iGEM Experience - After iGEM Communications Committee & iGEM Ambassadors​ https://video.igem.org/w/eeZV3d9ckW4Dvq5srqjRxLhttps://static.igem.org/peertube/streaming-playlists/hls/107573fd-edc1-4b38-b390-69f2aa09b828/5c04bcea-bf71-42db-9627-27ced4533db3-master.m3u8https://video.igem.org/videos/embed/32T1cEtJ3tGWhBYprKHpkE18090242021-08-16T21:54:34.501ZYESiGEM TVNOhttps://video.igem.org/w/tQ2B9WLaqdKkA8NQNc4Mobhttps://video.igem.org/lazy-static/thumbnails/920af365-8bab-4edc-a474-1d95ddb500f4.jpgWhy synthetic biology is awesome{ "speakerId": "6", "description": "Why is biology awesome? 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More info: https://igem.org/After_iGEM/Networks/Accessibility/Experts_Talkhttps://static.igem.org/peertube/streaming-playlists/hls/b189248c-428b-4216-a655-cdf0afbf6c54/34ee1532-dc44-4fe3-832c-0d5c834fcc2b-master.m3u8https://video.igem.org/videos/embed/nVwwoNvpUBvZFotxSBLLgN32450642021-08-18T13:02:41.396ZYESiGEM CommunityNOhttps://video.igem.org/w/p5KGDED27ZVTKrPtuNM6khhttps://video.igem.org/lazy-static/thumbnails/7232da8f-6aab-44f3-a1c9-d91ed1c99b90.jpgSHSID: Fervēre factory-An alkaloid cell factory (2021) - Project Promotion [English]**Title:** Fervēre factory-An alkaloid cell factory **Description:** By the way of synthetic biology technology we constructed a biological cell factory with saccharomyces cerevisiae as carrier, so as to efficiently produce putrescine and solve the raw material problem for chemical production of pharmaceutical tropane alkaloids. [Wiki](https://2021.igem.org/Team:SHSID)https://static.igem.org/peertube/streaming-playlists/hls/baec188a-b862-4fad-a5a3-1560860ec6ba/37e60433-464d-4fd2-aad6-a222acccb39b-master.m3u8https://video.igem.org/videos/embed/p5KGDED27ZVTKrPtuNM6kh11907022021-08-18T17:30:33.128ZYES2021 Project PromotionsNOhttps://video.igem.org/w/3oLXeAgPZTyLpKo3hUHrmXhttps://video.igem.org/lazy-static/thumbnails/bb7f558c-e160-47b8-9189-349ef505b67f.jpgiGEM Around the Globe (Ep #3) - GreatBay, ChinaIn the third episode of iGEM Around the Globe, we invite you to travel with us to Asia and meet the GreatBay China 2018 team. 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Watch our interview with Justin Atkin, owner of the popular YouTube channel “The Thought Emporium” with nearly 800K subscribers, to find out! On this episode of “Careers in SciComm,” the After iGEM Science Communication Network and Justin Atkin sit down to talk about science popularization, his journey to YouTube, and how he stays motivated in his work. The Thought Emporium doesn’t feature the traditional lecture format, but instead pulls non-expert viewers in with engaging, hands-on projects like growing spider silk using yeast and engineering fluorescent yeast. His videos aren’t just about synthetic biology though, but also include topics like optics, radio astronomy, and even molecular gastronomy! In this episode, Justin dives into his whirlwind journey to YouTube: from studying nuclear physics in high school and nanotechnology in college, before dropping out of college to become a self-taught scientist and communicator. He gives us his trade secrets on how to bring an audience along with him in his experiments by expertly integrating communication with hard science - in stark contrast to traditional scientists whose experiments stay in the lab. Watch the full video to hear about his journey, motivation, and experience in science communication throughout the past 9 years since he started his channel @ThoughtEmporium! Follow his channel here: https://www.youtube.com/channel/UCV5vCi3jPJdURZwAOO_FNfQ Justin’s interview is the first in our new video podcast series “Careers in SciComm” To stay updated about when we’re launching new episodes, subscribe to the After iGEM Newsletter! Host: After iGEM Science Communication Network Author list: Marissa Sumathipala, Revathi Reddy, Uttara Jayashankar, Shanthi Hegde, Ansley Gnanapragasam, Nicola Freyer, Yujie (Clare) Li, Harkirat S. Arora, Harindi Jayakody, Larissa Markus, Tamisha D. 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Ross joined Nature Communications in November 2014 and is part of their biotechnology team, handling manuscripts in genome engineering and synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/16788066-26b9-415c-8a8f-3591f2f37332/2eeb8e24-0ded-4714-aae8-a2d86e4dae2f-master.m3u8https://video.igem.org/videos/embed/3LWmF8CUCD6eZPehymNwQJ40640412021-08-25T13:13:43.419ZYESiGEM CommunityNOhttps://video.igem.org/w/dEw96i4eCtwfsEwDdGa5qyhttps://video.igem.org/lazy-static/thumbnails/e8f0ed8d-cd13-44e3-84e2-1fbc72085a51.jpgiGEM TV: Season #1 RecapApply to be an iGEM Commentator: https://www.surveymonkey.com/r/JLZX7YZ Our first season features 7 different programs (17 episodes in all!) where you can hear about the iGEM experience and the amazing projects of iGEM teams from all around the globe. With over 5,000 views (and counting!), iGEM TV took you on synthetic biology journeys from the heart of the tropical forests to the bottom of the oceans, and even the soil on Mars. Join us in this celebration to revisit all the exciting episodes we have launched so far and prepare for our second season! To stay updated about the upcoming releases on iGEM TV connect with us on Instagram and Twitter: @igem_tv See you all in the next season!https://static.igem.org/peertube/streaming-playlists/hls/668e8055-d3fd-482d-8555-824f7a56f7c8/3048953a-4330-4382-a808-2b53de2b5883-master.m3u8https://video.igem.org/videos/embed/dEw96i4eCtwfsEwDdGa5qy4090902021-08-26T20:08:17.448ZJamboreeBiotechnologySynthetic BiologyGiant JamboreeYESiGEM TVNOhttps://video.igem.org/w/r2VXLQEBs7hStVyf8LFMwThttps://video.igem.org/lazy-static/thumbnails/49b071cb-cd81-49d9-80c6-bdd6ac20a521.jpgTelling synthetic biology stories{ "speakerId": "30", "description": "Grace was, just like you, an iGEMer. Chemical engineer turned storyteller, designer, and art director Grace Chuang shares with you her story from iGEM to managing the brand and visual design of the world's top synthetic biology company. Grace will guide you through her approach of making biology easier to understand and bringing colors to the future we are building with biology." }https://static.igem.org/peertube/streaming-playlists/hls/cab9771d-44cd-4bc5-a139-6daf4a612b0b/b1965fc8-a612-4028-bc4f-ba8619641447-master.m3u8https://video.igem.org/videos/embed/r2VXLQEBs7hStVyf8LFMwT118402602021-08-31T16:46:05.784ZYESiGEM AcademyNOhttps://video.igem.org/w/rVY25UBUzpn4VC1WaxuhKkhttps://video.igem.org/lazy-static/thumbnails/35d2088d-e372-4445-90da-8e27077b9676.jpgArt meets synthetic biology towards scientific awareness{ "speakerId": "24", "description": "Karen is a creative director that brings color and shape to microscopic and abstract living wonders. You certainly have seen her pioneering artistic productions with Ginkgo Bioworks or the BioBuilder Foundation, which popularized complex and sophisticated biological processes. Karen has worked with several top companies and scientists. 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Get inspired by the story, challenges, and visions for the future of Ellen Jorgensen." }https://static.igem.org/peertube/streaming-playlists/hls/0b9cefe4-299c-4425-b3b1-f068983c34ac/5956101a-b723-44e1-ba3f-6b7cf70e5038-master.m3u8https://video.igem.org/videos/embed/2rb4UeV4DVbyLDGtG4jRBs232501532021-08-31T22:24:23.957ZYESiGEM AcademyNOhttps://video.igem.org/w/pButPikFGMdykju9Zmg2dqhttps://video.igem.org/lazy-static/thumbnails/7cdd0dd2-4256-451a-8c76-e7bb2f10a55b.jpgAprendiendo biología sintética en español{ "speakerId": "22", "description": "Víctor de Lorenzo pioneered synthetic biology towards environmental applications. The primary investigator of more than 150 articles from engineering environmental bacteria to developing a standardized toolbox for biological design, Víctor is a global leader advocating the partnership of SynBio and biodiversity to benefit the planet. Learn with Víctor how environmental and engineered microbes can clean pollution and protect the environment. 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By using synthetic biology to educate students and teachers within the classroom, Natalie will show you how her approach transformed lives." }https://static.igem.org/peertube/streaming-playlists/hls/14b9962a-d46a-4d2e-91fd-75f90584cc62/d8b20250-abd4-42af-879b-dcc933e344cd-master.m3u8https://video.igem.org/videos/embed/3yrazSzSZMdjitBYuJraT9102701962021-09-07T19:22:40.531ZYESiGEM AcademyNOhttps://video.igem.org/w/jud3ThjfyybswTTG5nPbsvhttps://video.igem.org/lazy-static/thumbnails/b3f47a29-e15a-4edc-a411-b21c11d004c7.jpgOpen innovation for a better, sustainable, equitable biofuture{ "speakerId": "27", "description": "Dr. Jenny Molloy is one of the leading voices working towards an open, sustainable, and equitable bioeconomy. Jenny directs initiatives across the globe, helping shape the future of biotech for the benefit of all people. Jenny will guide you through the main concepts of open science, collaboration, community, and the open innovation framework. You will learn how she defined her career and role in the global development of biotech and how she approaches it through a social impact perspective. Jenny believes everyone can be part of this community, and you can be the next leading voice in your region. Get inspired by the story, challenges, and visions of Jenny Molloy." }https://static.igem.org/peertube/streaming-playlists/hls/95b4bf52-304c-4d63-95ed-d273ad968811/06946e96-3d17-4121-ac07-19a274afddcf-master.m3u8https://video.igem.org/videos/embed/jud3ThjfyybswTTG5nPbsv209801162021-09-08T20:27:54.463ZYESiGEM AcademyNOhttps://video.igem.org/w/dC2VxaRHVJPTZWWVsbeghdhttps://video.igem.org/lazy-static/thumbnails/a08d529e-39a8-419e-a2c5-7e75e0483eb4.jpgEntrepreneurship by design{ "speakerId": "10", "description": "Will helps build and invests in synthetic biology life science teams. He has done this as an iGEMer, entrepreneur, and seed-stage accelerator and investor. 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Dr. Danielle brings cutting-edge science and shows how a Latin American country can be a reference of excellence in synthetic biology. Dani will guide you through her approach to designing and persevering in developing solutions to big biological problems. Danielle believes science focuses on the future. 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Get inspired by Todd's visions, story, and the foundations of public policy and advocacy." }https://static.igem.org/peertube/streaming-playlists/hls/05171f27-b34d-4512-9518-603e8d40ac39/43c4a3cb-f7f6-449a-b267-55fa0474d2e7-master.m3u8https://video.igem.org/videos/embed/1CswoDxygMvshCGenDKb7e152801482021-09-13T21:17:29.189ZYESiGEM AcademyNOhttps://video.igem.org/w/5oWTabDcc2vy5MFiGXxHnRhttps://video.igem.org/lazy-static/thumbnails/a241fd3c-c4d3-4ec9-b586-c43a9de65588.jpgBiology by Art{ "speakerId": "21", "description": "Lina is a designer who believes in electronics, art, and biology to create projects speculating potential futures. Lina draws new shapes, forms, and experiences catalyzed by challenging fields and frontiers as an artist. Lina Lopes will get you on an adventure towards approaching biology through an artistic perspective. Get inspired by the story, challenges, and visions of Lina Lopes." }https://static.igem.org/peertube/streaming-playlists/hls/2398bd66-16a7-40e8-900c-f0084dd0eabf/7af375f9-37eb-403b-96fa-bd6e4c45fed6-master.m3u8https://video.igem.org/videos/embed/5oWTabDcc2vy5MFiGXxHnR149902342021-09-15T23:30:49.990ZYESiGEM AcademyNOhttps://video.igem.org/w/tXoCMo9QhvG9tSQtBkSh7rhttps://video.igem.org/lazy-static/thumbnails/bd7599e1-a8bb-4a69-ac25-df6bc3b9f2b4.jpgBiorisk Assessment and Transparency by Design{ "speakerId": "25", "description": "Mayra is a leading voice in several global committees designing strategic policies for a safe and secure future in Argentina, Latin America, and worldwide. Argentinian biorisk management and biosecurity expert Mayra is an emerging Latina leader that seeks to raise biosecurity and biosafety awareness. Mayra's will get you on a journey to design by safety and security, considering policies and guidelines for your project development. Get inspired by the story, challenges, and visions of Mayra Ameneiros." }https://static.igem.org/peertube/streaming-playlists/hls/e2629998-3618-479d-bb93-f60762975d55/afc58ce0-477c-4be2-85d6-e560c31202b5-master.m3u8https://video.igem.org/videos/embed/tXoCMo9QhvG9tSQtBkSh7r266301762021-09-17T00:10:49.710ZYESiGEM AcademyNOhttps://video.igem.org/w/xfWkdzK3xfqTvAYWfRbHLQhttps://video.igem.org/lazy-static/thumbnails/7beb920c-80b3-467c-8062-8d62a527d4ed.jpgFundamentals of Synthetic Biology: An Introduction to Biological EngineeringFundamentals of Synthetic Biology: An Introduction to Biological Engineeringhttps://static.igem.org/peertube/streaming-playlists/hls/fd2131b1-23a4-4d54-a9ed-abadc05a36cc/8342b1d9-350b-442a-a253-d1f16bd860c1-master.m3u8https://video.igem.org/videos/embed/xfWkdzK3xfqTvAYWfRbHLQ66810462021-09-27T19:16:46.283ZYESiGEM AcademyNOhttps://video.igem.org/w/cUa5XYDYS22gGabp45BWsxhttps://video.igem.org/lazy-static/thumbnails/85a87bfc-ae96-4975-b11a-a2dac2421a9c.jpgFiresidechat with iGEMers: Human Practices and CollaborationsFiresidechat with iGEMers: Human Practices and Collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/605ccced-c6e1-44d0-925b-6490d654b9f3/7851fc22-3d16-4def-ac19-9c1eaa8289a4-master.m3u8https://video.igem.org/videos/embed/cUa5XYDYS22gGabp45BWsx44630112021-09-27T19:16:22.920ZYESiGEM AcademyNOhttps://video.igem.org/w/rdop6tUNN4EucfsNz6D17fhttps://video.igem.org/lazy-static/thumbnails/8558aeac-2348-4bcc-af96-0e32d4b3aad9.jpgTutorial on the use of Teselagen Design and Build PlatformTutorial on the use of Teselagen Design and Build Platformhttps://static.igem.org/peertube/streaming-playlists/hls/cc2f31f2-ae6a-4489-a54b-cf1db27a00a2/ebe9e69f-b8f5-451c-9495-f8ddbb89c711-master.m3u8https://video.igem.org/videos/embed/rdop6tUNN4EucfsNz6D17f50400102021-09-27T19:16:12.376ZYESiGEM AcademyNOhttps://video.igem.org/w/pAQkd2M43fwPhpsh1vjuiwhttps://video.igem.org/lazy-static/thumbnails/793fccc8-52b5-4277-b8d7-47b01046231c.jpgIntroduction to Bioinformatics 1 - GenomicsIntroduction to Bioinformatics 1 - Genomicshttps://static.igem.org/peertube/streaming-playlists/hls/bf1f4332-ff82-4feb-87f6-eab6275a9d88/b89a0690-53fc-4939-a5c7-75adeb014eb5-master.m3u8https://video.igem.org/videos/embed/pAQkd2M43fwPhpsh1vjuiw55790352021-09-27T19:15:58.989ZYESiGEM AcademyNOhttps://video.igem.org/w/7zB2heuHE1P8GLCaJeoDEUhttps://video.igem.org/lazy-static/thumbnails/936b6749-a437-4641-92ed-db2b43c02491.jpgSynBio Leaders: Live Interview with Mariana MatusA live interview with Mariana Matus, CEO and Founder of BioBot, one of the most innovative startups in the field of Biotechnology. 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We will be bringing in seasoned professionals and iGEM alumni who just landed their first job. Talks will cover job applications, writing resumes, switching careers, and upskilling. No matter the stage of your career, you are sure to find great advice.https://static.igem.org/peertube/streaming-playlists/hls/1d320b5a-abfe-40d0-9a4a-9632dc79c844/efdc68ab-b830-4619-9dfb-72b986c78901-master.m3u8https://video.igem.org/videos/embed/4B6QtxatndqCYfNK87FTNm33720102021-10-02T11:54:55.111Zindustry YESiGEM CommunityNOhttps://video.igem.org/w/wz84a15yzhX5GUpvbWhv9whttps://video.igem.org/lazy-static/thumbnails/15d4a0ea-e5e7-47cd-8773-ec9a0e9cd0ef.jpgIndustry Talks 2021: State of the IndustryThe Steering Group of the Industry Network is organizing a series of talks addressing the experiences of Industry Professionals. We would like to represent all kinds of job positions, from biologists to project managers and business developers, but also independent professionals who launched their own business. We will be bringing in seasoned professionals and iGEM alumni who just landed their first job. Talks will cover job applications, writing resumes, switching careers, and upskilling. No matter the stage of your career, you are sure to find great advice.https://static.igem.org/peertube/streaming-playlists/hls/f7920d38-276f-4636-850b-de7e130dede2/6b0888a6-d478-4884-a7c6-172f00914cc3-master.m3u8https://video.igem.org/videos/embed/wz84a15yzhX5GUpvbWhv9w35160212021-10-02T12:16:18.439Zindustry YESiGEM CommunityNOhttps://video.igem.org/w/8RMod6WgScmi29gUmMHiZQhttps://video.igem.org/lazy-static/thumbnails/3310c54f-6932-4936-b294-746434fe2d8d.jpgRochester: Upward Bound Microfluidics activity 2 (2021) [English]University of Rochester Bio-Spire Upward Bound Microfluidics activity 2 https://static.igem.org/peertube/streaming-playlists/hls/3fa36231-082d-43e6-82e2-c4c69d1691b6/a93df4b2-8521-4d0b-bfb0-c51df54d84f6-master.m3u8https://video.igem.org/videos/embed/8RMod6WgScmi29gUmMHiZQ323062021-10-12T18:15:25.074ZBio-SpireOutreach and EducationRochesterYESiGEM 2021 TeamsNOhttps://video.igem.org/w/nSiHAqjXxbHPGgsuyDsVkChttps://video.igem.org/lazy-static/thumbnails/9eae98f9-d9e4-47d3-8325-efe3d30f597e.jpgThessaly: microbioCOSMOS: Aalto-Helsinki presentation (2021) [English]Project presentation by iGEM Aalto-Helsinki as part of the MIcrobioCOSMOS event.https://static.igem.org/peertube/streaming-playlists/hls/b11604d8-7700-4504-b2d9-a65dc0ca1f46/77bf18cc-9e8b-4cc5-b29b-84f222c2a500-master.m3u8https://video.igem.org/videos/embed/nSiHAqjXxbHPGgsuyDsVkC363012021-10-14T14:55:58.932ZMicrobiomeYESiGEM 2021 TeamsNOhttps://video.igem.org/w/jUexksr8eZ3FVyEx1kawvqhttps://video.igem.org/lazy-static/thumbnails/34a41d1f-f811-483c-a04e-23ec23d17d61.jpgThessaly: microbioCOSMOS: Heidelberg presentation (2021) [English]Project presentation by iGEM Heidelberg as part of the microbioCOSMOS event.https://static.igem.org/peertube/streaming-playlists/hls/990f8433-247a-408c-8c39-fc704bf0c33a/8469caf0-e095-44f5-b216-ff1e0d0378ae-master.m3u8https://video.igem.org/videos/embed/jUexksr8eZ3FVyEx1kawvq262022021-10-14T15:03:45.014ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/5EHqam6VMLj7pJURZMp7Lqhttps://video.igem.org/lazy-static/thumbnails/b0fbc79d-244f-4d57-b424-0519e8cd3553.jpgThessaly: microbioCOSMOS: IISER-Tirupati_India presentation (2021) [English]Project presentation by iGEM ISER-Tirupati as part of the microbioCOSMOS event.https://static.igem.org/peertube/streaming-playlists/hls/25cc577e-2ccf-4f0d-a47c-a63b2d53cb30/b453341d-f2e1-471b-8a2d-1c738e85fe6d-master.m3u8https://video.igem.org/videos/embed/5EHqam6VMLj7pJURZMp7Lq615082021-10-14T15:08:15.961ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/d7so1gDfo1Zqzk2QuC1sgrhttps://video.igem.org/lazy-static/thumbnails/e1e77b5e-859c-40cd-aed1-47d6baf80988.jpgThessaly: microbioCOSMOS: MIT presentation (2021) [English]Project presentation by iGEM MIT as part of the microbioCOSMOS event.https://static.igem.org/peertube/streaming-playlists/hls/62146227-9c04-4536-b8cd-8aeb872f1867/3c2ece70-0cb2-4168-9971-fbe1e5e65865-master.m3u8https://video.igem.org/videos/embed/d7so1gDfo1Zqzk2QuC1sgr491022021-10-14T15:11:26.035ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/xrmU1iRrctX6YJyfSXqL9Lhttps://video.igem.org/lazy-static/thumbnails/c59a0e35-24cc-4bd5-b9c5-bea9efdefcec.jpgThessaly: microbioCOSMOS: Thessaly presentation (2021) [English]Project presentation by iGEM Thessaly as part of the MIcrobioCOSMOS event.https://static.igem.org/peertube/streaming-playlists/hls/fe95c54e-247f-448b-906d-16408f57fd1c/57d5e48f-a742-4c0b-b94d-2e3ac0f7ea61-master.m3u8https://video.igem.org/videos/embed/xrmU1iRrctX6YJyfSXqL9L614042021-10-14T15:18:42.260ZMicrobiomeYESiGEM 2021 TeamsNOhttps://video.igem.org/w/jWyCNTi2pjh51PU15J7nyrhttps://video.igem.org/lazy-static/thumbnails/718a5f76-b012-42de-8613-1d75f23ffbba.jpgThessaly: Engineering our collective futures together. Leandros Tsiotos (2021) [English]“Engineering our collective futures together” Presented by Leandros Tsiotos iGEM Ambassador to Europe.https://static.igem.org/peertube/streaming-playlists/hls/9962c571-7fd8-479a-a1dd-65fcb863b45d/ed4e0f41-f995-4b5d-bebd-c36577eabb39-master.m3u8https://video.igem.org/videos/embed/jWyCNTi2pjh51PU15J7nyr977032021-10-14T15:40:33.767ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/wAfJ9vxAqjwJmawR4zXp6Shttps://video.igem.org/lazy-static/thumbnails/aef62748-d7c2-4e57-9c0d-ca684d4a961d.jpgThessaly: Exploring the microbial potential Dr. Sotirios Vasileiadis (2021) [English]“Exploring the microbial potential: Dissecting the mechanisms and roles in the biodegradation of persistent by a microbial compound” Presented by Dr. Sotirios Vasileiadis, Associate professor of Molecular and Microbial Ecology, University of Thessaly https://static.igem.org/peertube/streaming-playlists/hls/f7ba860b-5e46-4c31-b426-bc5cc3641458/2a752a0a-2a34-4db3-b5d8-12916b10cc78-master.m3u8https://video.igem.org/videos/embed/wAfJ9vxAqjwJmawR4zXp6S1486022021-10-14T15:48:08.938ZMicrobiomeYESiGEM 2021 TeamsNOhttps://video.igem.org/w/dU9w4yGnDCLrarkotLyeX2https://video.igem.org/lazy-static/thumbnails/4ca3df4d-f417-42b2-bbfb-b65840211a78.jpgThessaly: World Microbiome Day (2021) [English]It’s #WorldMicrobiomeDay! Through the iGEM competition, we aim to apply a synthetic approach towards microbial communities. We are young researchers that study different aspects of our microbial friends! Let’s celebrate all #microbes on earth, their diversity, their potential and beauty. #igem #igemthessaly #syntheticbiology #Microbiomes4Life https://static.igem.org/peertube/streaming-playlists/hls/687596ec-b29b-476d-a785-f90a435fdaeb/7a78bf86-34d9-472f-a691-faa546d390b6-master.m3u8https://video.igem.org/videos/embed/dU9w4yGnDCLrarkotLyeX2240082021-10-14T16:14:43.964ZMicrobiomeYESiGEM 2021 TeamsNOhttps://video.igem.org/w/gM6PB4EnS4NECzQgezfbXJhttps://video.igem.org/lazy-static/thumbnails/e2062016-b040-4581-8741-2e48a137d477.jpgLMSU: Modeling-BcLOV4 (2021) [English]LMSU: Modeling-BcLOV4 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/7fc52300-710a-47af-ad90-eb8a6b879d28/c865d0ea-7f7a-4e22-8376-d4a43b20f45c-master.m3u8https://video.igem.org/videos/embed/gM6PB4EnS4NECzQgezfbXJ70282021-10-15T19:43:05.671ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/kVMat7oetpp1RxSCPht4c2https://video.igem.org/lazy-static/thumbnails/a193f3e8-004d-4a7f-b2a6-2bb03985b7a3.jpgLMSU: Modeling_othBphP1BcLOV4mono (2021) [English]LMSU: Modeling_othBphP1BcLOV4mono (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/a15fe31e-3a42-4395-bdbf-40fb4688e483/ceeeab03-ba1b-45fc-9567-5141bc11a3d0-master.m3u8https://video.igem.org/videos/embed/kVMat7oetpp1RxSCPht4c270202021-10-15T19:48:05.075ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/8JtBhdAqqZNiPs8WpXKLhshttps://video.igem.org/lazy-static/thumbnails/db22d2ae-e578-4b95-8093-b822e2123e92.jpgLMSU: Modeling_ourBphP1BcLOV4mono (2021) [English]LMSU: Modeling_ourBphP1BcLOV4mono (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/3e9e3921-07c3-4933-bd9e-566856a46972/1e09e1e8-33dd-45a1-89fc-f5a633b76d56-master.m3u8https://video.igem.org/videos/embed/8JtBhdAqqZNiPs8WpXKLhs7092021-10-15T19:57:54.221ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/gmeLDABSjnYcW9pdPByoVDhttps://video.igem.org/lazy-static/thumbnails/33668ec8-d4fb-43f4-ba6f-9ad9cf0cfbc3.jpgLMSU: Modeling_othGal4mono (2021) [English]LMSU: Modeling_othGal4mono (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/7c4c70f5-0507-4592-9932-f656a889304f/df30e2ec-df82-484a-a5a4-1d665a290a96-master.m3u8https://video.igem.org/videos/embed/gmeLDABSjnYcW9pdPByoVD70102021-10-15T20:01:16.610ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/menuW9QoiYmpv8vAbhUGbVhttps://video.igem.org/lazy-static/thumbnails/03c48c7a-f843-4664-b7d5-68eab4729451.jpgLMSU: Modeling_ourGal4mono (2021) [English]LMSU: Modeling_ourGal4mono (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/a3d4b0fc-5ba1-40ec-b6e7-17900eb3e379/e9df81a2-4216-409b-85bb-a3cc4503a05a-master.m3u8https://video.igem.org/videos/embed/menuW9QoiYmpv8vAbhUGbV70102021-10-15T20:02:43.379ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/9Na5fUbUFquCXnyB3ejirhhttps://video.igem.org/lazy-static/thumbnails/aad66a82-68af-49ee-80a4-8fd0bf4348a9.jpgLMSU: Modeling_othBphP1BcLOV4dim (2021) [English]LMSU: Modeling_othBphP1BcLOV4dim (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/473aea14-ae60-4203-bd4f-4f76df69f6be/f524772f-b60c-4d87-8262-8e9f19f9047f-master.m3u8https://video.igem.org/videos/embed/9Na5fUbUFquCXnyB3ejirh7062021-10-15T20:04:43.712ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/tpiyk5m7Cost9nLvmMuc2Khttps://video.igem.org/lazy-static/thumbnails/4f8d506d-1353-49ee-9419-1f8543781b4b.jpgLMSU: Modeling_ourBphP1BcLOV4dim (2021) [English]LMSU: Modeling_ourBphP1BcLOV4dim (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/dde7abb0-463d-4985-ae5c-fa6549e4ede1/c4612fdd-5a0f-4c1a-9e30-8ecb3b9fd202-master.m3u8https://video.igem.org/videos/embed/tpiyk5m7Cost9nLvmMuc2K7052021-10-15T20:06:13.518ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/wrf8v9LH4HuEbEk8qwrhFChttps://video.igem.org/lazy-static/thumbnails/fe934a6b-2788-4bf7-aabd-3b7a55483cea.jpgLMSU: Modeling_othGal4dim (2021) [English]LMSU: Modeling_othGal4dim (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/f6787629-bb07-49c7-91b8-a84425a25d42/944f515f-4a05-42cf-ac44-a6b599931a02-master.m3u8https://video.igem.org/videos/embed/wrf8v9LH4HuEbEk8qwrhFC7032021-10-15T20:07:26.819ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/rKoH1zo2W6yBDgf1PwYLLZhttps://video.igem.org/lazy-static/thumbnails/92f66e41-433d-4da3-8be9-c9a648d605bb.jpgLMSU: Modeling_ourGal4dim (2021) [English]LMSU: Modeling_ourGal4dim (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/d083713d-0563-4605-acd8-d11c8ea04561/94f9191d-0ced-40e4-8e17-38240c5abb56-master.m3u8https://video.igem.org/videos/embed/rKoH1zo2W6yBDgf1PwYLLZ7032021-10-15T20:08:19.524ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/e6qv8eYtnTAscgMyERyzyahttps://video.igem.org/lazy-static/thumbnails/a3fb51fb-ad9e-4cb8-9c8f-f0d122da5d44.jpgLMSU: Modeling_othGal4_DNA (2021) [English]LMSU: Modeling_othGal4_DNA (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/6a089f15-3d3a-4d6d-96cf-c1de923f893d/cc4125fd-2e36-4cd1-887e-68ea36ed7e97-master.m3u8https://video.igem.org/videos/embed/e6qv8eYtnTAscgMyERyzya7072021-10-15T20:31:38.631ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/bHWvRRGbvW31CZcqYvooNuhttps://video.igem.org/lazy-static/thumbnails/5162872a-f760-4dc3-a24b-4d9d46972605.jpgLMSU: Modeling_ourGal4_DNA (2021) [English]LMSU: Modeling_ourGal4_DNA (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/56d67a24-a7c3-44da-bf20-0157a2143b60/16bac955-92c8-473a-b994-8abdb664e969-master.m3u8https://video.igem.org/videos/embed/bHWvRRGbvW31CZcqYvooNu7012021-10-15T20:32:49.613ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/cnDMqaQjdDm6EjDNWsCsiqhttps://video.igem.org/lazy-static/thumbnails/c79b67ac-7346-4fbf-ab2e-37b2bdc2bb02.jpgLMSU: Modeling_othBphP1_Gal4 (2021) [English]LMSU: Modeling_othBphP1_Gal4 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/5c1a6dd6-dd04-4f98-acd4-cda7a55c009a/34ac38df-f87b-47b4-b927-c5cbfb46a4fd-master.m3u8https://video.igem.org/videos/embed/cnDMqaQjdDm6EjDNWsCsiq70102021-10-15T20:57:30.074ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/fNuUfUDAugNN1uuogeum1thttps://video.igem.org/lazy-static/thumbnails/e0a5fc01-33e6-4098-86d5-c9cb394c277a.jpgLMSU: Modeling_ourBphP1_Gal4 (2021) [English]LMSU: Modeling_ourBphP1_Gal4 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/77ddf72c-8e38-4a8b-bdd0-7853e251f4fb/a6352e2a-d133-4aa6-919b-4fae14888412-master.m3u8https://video.igem.org/videos/embed/fNuUfUDAugNN1uuogeum1t70122021-10-15T20:58:49.055ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/a2Q7g1mds1X3V83sHhaWnshttps://video.igem.org/lazy-static/thumbnails/3758bc17-11e9-4eb1-b4df-1ba250867ea6.jpgMiamiU_OH: Genetically Modified Organisms Overview (2021) [English]Miami University's 2021 iGEM team project, CROP, focuses on the genetic redesign of ribulose 1,5-bisphosphate (RuBP) regeneration in plants. Because of the projects relation to genetically modified organisms (GMOs), the team wanted to address the paranoia and unscientific claims that tend to surround GMOs by creating a general overview of GMOs. This video provides a virtual learning experience specifically aimed at U.S. students in grades 4 through 6.https://static.igem.org/peertube/streaming-playlists/hls/4923a3a6-b0c6-40fe-b559-5d2d2f22fdfc/5e610409-0d13-449a-8460-e2244baa7cd4-master.m3u8https://video.igem.org/videos/embed/a2Q7g1mds1X3V83sHhaWns461092021-10-16T03:40:48.728ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/79mGnpAmBRQjd8w65vDmw2https://video.igem.org/lazy-static/thumbnails/8b26d041-2aab-4886-a14a-6e64db76aca1.jpgThessaly: AMALTHEA 2021 | Logo Reveal (2021) [English]As all of you have waited for, it’s time to reveal our project logo for Amalthea! We, us team Thessaly, continue this year with project Amalthea, finishing what we started! What do you think? Are you excited to learn about Amalthea and what it stands for? 😉 Stay tuned for many more to come! Logo Design: Dimitris BILIOURIS Video Creation: Pericles VASILEIOU Art Direction: Pericles VASILEIOU Dimitris BILIOURIS -- Audio Track: https://tunetank.com/t/1uh9/3136-breaking-sky -- #igem #igemthessaly #igem2021 #igemthessaly2021 #synbioGR #amaltheahttps://static.igem.org/peertube/streaming-playlists/hls/31c18957-b5d6-47cf-81ea-3513eddd77f5/d7491cb9-52b0-4b89-b1c0-affceeab841a-master.m3u8https://video.igem.org/videos/embed/79mGnpAmBRQjd8w65vDmw2380132021-10-17T14:04:27.027ZamaltheaYESiGEM 2021 TeamsNOhttps://video.igem.org/w/7uJ2jHGJH9VRWJDHcaDvrFhttps://video.igem.org/lazy-static/thumbnails/0285d62a-717b-4a10-90fc-ffeeb35f2cdf.jpgRochester: Upward Bound ph activity part 1 (2021) [English]University of Rochester Bio-Spire Upward Bound pH activity. https://2021.igem.org/Team:Rochester https://static.igem.org/peertube/streaming-playlists/hls/34998e14-19c9-4d02-a93e-5a44a11644dd/477a6a47-8a40-4430-917a-bb17534b1492-master.m3u8https://video.igem.org/videos/embed/7uJ2jHGJH9VRWJDHcaDvrF129032021-10-17T20:01:33.562ZOutreach and EducationBio-SpirepHYESiGEM 2021 TeamsNOhttps://video.igem.org/w/pS8bLpvqFENHBc293CJszVhttps://video.igem.org/lazy-static/thumbnails/7d477d69-a54d-4547-a1fb-6fa6aad18f35.jpgThessaly: Falling Walls Lab Greece | Winner Presentation (2021) [English]We participated to the first FALLING WALLS LAB GREECE, one of the biggest innovation and entrepreneurship competition and we took the 1st place among all the competitors. Our project was presented by our Project Leader, Asteria Tsapadikou. Title of our presentation:Breaking The Wall of Microbiome With AMALTHEA https://static.igem.org/peertube/streaming-playlists/hls/c141ce54-28de-4fe8-bd00-9bc8839c52e7/5aa9eb9d-27e4-45cd-8ca1-767f4f316ed4-master.m3u8https://video.igem.org/videos/embed/pS8bLpvqFENHBc293CJszV200072021-10-17T20:58:00.116ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/toi2cJk4SF3SJpHaKuEndghttps://video.igem.org/lazy-static/thumbnails/2b5baa4b-59c4-4967-816a-2b66c7a9e09f.jpgRochester: Upward Bound pH activity Part 2 (2021) [English]University of Rochester: Upward Bound pH actvity Part 2 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/ddc3989d-b0fc-4d0b-87e3-9249d8a9920b/e5d5802e-4fbf-465b-b9bf-f2e317c12384-master.m3u8https://video.igem.org/videos/embed/toi2cJk4SF3SJpHaKuEndg87012021-10-17T21:27:03.921ZBio-SpireOutreach and EducationRochesterYESiGEM 2021 TeamsNOhttps://video.igem.org/w/eg6teKhoQLf34zK2awTi9xhttps://video.igem.org/lazy-static/thumbnails/8294d1e6-50a0-4854-9929-df6cc27eee6f.jpgRochester: Upward bound pH activity Part 4 (2021) [English]University of Rochester: Upward bound pH activity Part 4 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/6b625473-daa8-4fd2-92cb-378d427f928b/f140975c-893a-4b1d-969e-de2f247db179-master.m3u8https://video.igem.org/videos/embed/eg6teKhoQLf34zK2awTi9x112012021-10-17T22:10:34.014ZBio-SpireRochesterYESiGEM 2021 TeamsNOhttps://video.igem.org/w/nRnU83KnC1H4Qt5obE73fjhttps://video.igem.org/lazy-static/thumbnails/473149b6-7af7-459d-966f-6c7fba6e4ed9.jpgRochester: Upward bound Plasmids Part 2 (2021) [English]University of Rochester: Upward bound Plasmids Part 2 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/b0f4da23-e626-40f2-b390-e5cc8ecd2596/e623ad49-0267-422b-9e1c-da4ebf5e383c-master.m3u8https://video.igem.org/videos/embed/nRnU83KnC1H4Qt5obE73fj102022021-10-17T22:12:38.563ZOutreach and EducationBio-SpireRochesterYESiGEM 2021 TeamsNOhttps://video.igem.org/w/3ixsV3kSNgH4F3carBGwVEhttps://video.igem.org/lazy-static/thumbnails/877a65f9-7b36-410e-80b6-363627ba3aa8.jpgRochester: Upward bound plasmid part 1 (2021) [English]University of Rochester: Upward bound plasmid part 1 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/12a54fd3-21fc-42fb-8aba-50f911dc1a30/b751b668-30fa-4b66-8bc9-99595aac4189-master.m3u8https://video.igem.org/videos/embed/3ixsV3kSNgH4F3carBGwVE341052021-10-17T22:22:09.142ZBio-SpireRochesterYESiGEM 2021 TeamsNOhttps://video.igem.org/w/frCh6AhojNqSQVTCjkvH6shttps://video.igem.org/lazy-static/thumbnails/6a26df01-8f42-457b-b8ad-7aa53216cfee.jpgRochester: Upward bound plasmid part 3 (2021) [English]University of Rochester: Upward bound plasmid part 3 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/74f3e46e-532d-42e4-938a-a32895260578/f9561083-d491-4b3a-963b-a7d2d6086613-master.m3u8https://video.igem.org/videos/embed/frCh6AhojNqSQVTCjkvH6s227052021-10-17T22:24:03.930ZBio-SpireRochesterYESiGEM 2021 TeamsNOhttps://video.igem.org/w/dGw9xPFUUjEE181SjjknyXhttps://video.igem.org/lazy-static/thumbnails/0e38998f-7e8d-4dc3-8bb9-890b38a78a15.jpgRochester: Upward Bound pH Part 3 (2021) [English]University of Rochester: Upward Bound pH Part 3 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/66d5fe63-beb2-4dfa-af64-7028a80ae443/503ca2b9-0120-4d63-8605-d71afe187d61-master.m3u8https://video.igem.org/videos/embed/dGw9xPFUUjEE181SjjknyX142052021-10-19T10:38:21.201ZBio-SpireRochesterYESiGEM 2021 TeamsNOhttps://video.igem.org/w/uZGQjei7LsdMG5NNGZRT1Uhttps://video.igem.org/lazy-static/thumbnails/c19b696b-37b9-41a6-8e7f-441368c75422.jpgGreece_United: What is synthetic biology? (2021) [English]Hello everybody! We are "Nous" a new interdisciplinary team aiming for the iGEM competition in 2021. Our core team consists of students from the Democritus University of Thrace and the Aristotle University of Thessaloniki. In this video we aim to explain Synthetic Biology, the main theme of the iGEM competition. We invite you to join us on our science trip until the Giant Jamboree in Boston! Keep on following us! Let's start the journey together! This video was made using: FreshPaint, DaVinvi Resolve, Adobe After effects FB page: https://www.facebook.com/iGEMNous/ Instagram account: https://www.instagram.com/nous_igem/ Twitter: https://twitter.com/IgemNoushttps://static.igem.org/peertube/streaming-playlists/hls/eace710c-e830-4c99-8340-f0c332685418/b84a8728-1cf3-459a-aa51-ab97a31507bc-master.m3u8https://video.igem.org/videos/embed/uZGQjei7LsdMG5NNGZRT1U2290242021-10-18T01:28:45.228ZSyntheticBiologyiGEMGreeceBiologyYESiGEM 2021 TeamsNOhttps://video.igem.org/w/pQrbwPKTi1JAyigabphTJZhttps://video.igem.org/lazy-static/thumbnails/d612497b-be96-46e5-a46f-17c67319adaf.jpgGreece_United: What is iGEM? (2021) [English]Hello everybody! In this video we aim to explain iGEM and the competition it hosts. Also we talk about all the specialties needed for a project to be completed. Applications opening soon! Stay Tuned! Let's start the journey together! This video was made using: FreshPaint, DaVinvi Resolve, Adobe After effects Facebook: https://www.facebook.com/iGEMNous/ Instagram: https://www.instagram.com/nous_igem/ Twitter: https://twitter.com/IgemNoushttps://static.igem.org/peertube/streaming-playlists/hls/c10568a9-95b6-4018-be94-f30031506dd9/ebf96487-1a0e-42c5-9bde-c499299d77ba-master.m3u8https://video.igem.org/videos/embed/pQrbwPKTi1JAyigabphTJZ3220252021-10-18T01:31:56.110ZiGEMGreeceCompetitionSyntheticBiologyYESiGEM 2021 TeamsNOhttps://video.igem.org/w/cGBM4fyULnnkWFT2NTx9hbhttps://video.igem.org/lazy-static/thumbnails/fbe2195f-c98a-4e50-a718-ee653f82fd30.jpgGreece_United: The meaning behind "NOUS" (2021) [English]EN| Hello everybody! In this video we tell you all about the meaning of our team name! Have you ever wondered what "Nous" stands for? This video was made using: FreshPaint, DaVinvi Resolve, Adobe After effects Facebook: https://www.facebook.com/iGEMNous/ Instagram: https://www.instagram.com/nous_igem/ Twitter: https://twitter.com/IgemNoushttps://static.igem.org/peertube/streaming-playlists/hls/5ec05306-3b62-4c56-9853-87f00ca37952/bb93a77d-ac36-4678-8e98-1427920c78ef-master.m3u8https://video.igem.org/videos/embed/cGBM4fyULnnkWFT2NTx9hb136042021-10-18T01:33:19.237ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/iftRKztDVnJh8RmAubBb4ihttps://video.igem.org/lazy-static/thumbnails/6b892084-a020-4866-94d9-9de8c4b690ed.jpgLesson 101: How to thrive as an AssociationPanel Discussion with Associations - CCiC, SynBio Canada, SynBio Africa and KCL SynBioTech.https://static.igem.org/peertube/streaming-playlists/hls/8bb0f01e-a696-413c-bfbf-95793baee53f/e9788c5d-ad84-4cae-9ec0-174d83624baa-master.m3u8https://video.igem.org/videos/embed/iftRKztDVnJh8RmAubBb4i22260202021-10-18T02:02:51.313ZYESiGEM CommunityNOhttps://video.igem.org/w/trK5GKASNsDk5AqLSAuY9Shttps://video.igem.org/lazy-static/thumbnails/b1b41f0a-f78a-45d4-8edd-ed8f2100a3db.jpgThessaly: Personalized Nutrition Plans Based on Measurement on Specific Redox Biomarkers in Human...Thessaly: Personalized Nutrition Plans Based on Measurement on Specific Redox Biomarkers in Human Blood (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/de3ee342-29ef-4131-b015-1d58649460a2/f0371d42-b0cc-4cd2-af8b-579208d507f9-master.m3u8https://video.igem.org/videos/embed/trK5GKASNsDk5AqLSAuY9S1343042021-10-18T12:27:01.906ZPersonalized NutritionYESiGEM 2021 TeamsNOhttps://video.igem.org/w/1sUPFD1B5rYxiS5cUKT5bchttps://video.igem.org/lazy-static/thumbnails/3c2a12bb-0150-4ac9-8ee3-e075bd78c799.jpgThessaly: New Frontiers in Gut Research | iGEM Thessaly x Mc Master Synbio (2021) [English]Thessaly: New Frontiers in Gut Research | iGEM Thessaly x Mc Master Synbio (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/03c1e40c-5098-4f69-b39e-aeabec1849c7/8decb54f-1cc7-47fc-b228-a804d892d902-master.m3u8https://video.igem.org/videos/embed/1sUPFD1B5rYxiS5cUKT5bc46780152021-10-18T13:17:44.973ZMicrobiomeYESiGEM 2021 TeamsNOhttps://video.igem.org/w/4cRxv9pjsGncz2Y62ABrLjhttps://video.igem.org/lazy-static/thumbnails/27b6b385-293f-4b3d-a85b-7c32e40dc16d.jpgiGEM 2021: Manufacturing Track Projects (Trailer)iGEM 2021: Manufacturing Track Projects (Trailer)https://static.igem.org/peertube/streaming-playlists/hls/19f32126-d5ca-49db-ab05-4b905e4d3206/505cc5c0-1f6a-4ab4-8099-e74d3ebef2eb-master.m3u8https://video.igem.org/videos/embed/4cRxv9pjsGncz2Y62ABrLj14305092021-10-18T17:54:13.407ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/6tG6HGhYq7ce89ZWX5Dqxohttps://video.igem.org/lazy-static/thumbnails/0dbab828-bb42-4a23-9a89-67518aa08b5d.jpgiGEM 2021: Food & Nutrition Track Projects (Trailer)iGEM 2021: Food & Nutrition Track Projects (Trailer)https://static.igem.org/peertube/streaming-playlists/hls/2c5b7c9a-671e-4dbb-906e-6efdc6ec75e4/7a49d424-59e8-4e93-9113-c723a40d8bb7-master.m3u8https://video.igem.org/videos/embed/6tG6HGhYq7ce89ZWX5Dqxo155010702021-10-18T17:59:53.613ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/gmHMU8ighZcbB1B5RLjNdihttps://video.igem.org/lazy-static/thumbnails/c79c3fbf-c516-4b78-a625-bc90f2e00953.jpgiGEM 2021: New Application Track Projects (Trailer)iGEM 2021: New Application Track Projects (Trailer)https://static.igem.org/peertube/streaming-playlists/hls/7c5db5cb-a894-4a4f-b03f-286324aa7ef1/654b8189-5dc5-48c6-bd65-c39143116f0e-master.m3u8https://video.igem.org/videos/embed/gmHMU8ighZcbB1B5RLjNdi15605232021-10-18T18:11:40.246ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/g9mLggpDa8UAyb5rKXPMvRhttps://video.igem.org/lazy-static/thumbnails/06f87c7c-f285-4abc-91af-be6fff4cf49e.jpgigroBIO (2021) - Project PromotionigroBIO (2021) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/7aa3d368-594e-4dcb-b3d8-0232272d1bff/ba8df195-b5da-4281-8e44-a904eaa1bf30-master.m3u8https://video.igem.org/videos/embed/g9mLggpDa8UAyb5rKXPMvR1270262021-10-18T18:59:29.150ZYESiGEM Design LeagueNOhttps://video.igem.org/w/9iahor3RmsyPBMEhCWf95chttps://video.igem.org/lazy-static/thumbnails/02d12d7e-00ec-4f2f-8393-c688b00a0d66.jpgIktan Kaan'ek (2021) - Project PromotionIktan Kaan'ek (2021) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/432e7953-a329-4fb4-8487-5ed0052d4e23/7b7d43d4-eb7a-4859-97c3-ca9d759d01cf-master.m3u8https://video.igem.org/videos/embed/9iahor3RmsyPBMEhCWf95c1390312021-10-18T19:13:54.192ZYESiGEM Design LeagueNOhttps://video.igem.org/w/bkHWzHeEFUaQ7urocAYejHhttps://video.igem.org/lazy-static/thumbnails/9a8f298d-9aa6-4aef-b233-326ed4026419.jpgPanama-Uni (2021) - Project PromotionPanama-Uni (2021) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/53bc5d85-db7f-4961-86c6-1679c730e1d1/005a4839-3abe-4483-a4fd-cf73c0364307-master.m3u8https://video.igem.org/videos/embed/bkHWzHeEFUaQ7urocAYejH1250432021-10-18T19:24:46.679ZYESiGEM Design LeagueNOhttps://video.igem.org/w/wbWFtrvpMbh5T3ednEu9vvhttps://video.igem.org/lazy-static/thumbnails/df1068f0-19a3-4ccf-b5cb-ba2caf49e29c.jpgP(d)PANA (2021) - Project PromotionP(d)PANA (2021) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/f4794bac-5acc-4b70-82b0-932f004cf62f/b1daa53c-b075-4b36-9d73-77673a3048e4-master.m3u8https://video.igem.org/videos/embed/wbWFtrvpMbh5T3ednEu9vv1270262021-10-18T19:41:03.236ZYESiGEM Design LeagueNOhttps://video.igem.org/w/siVw4BTr7mBCpT9afkrMuphttps://video.igem.org/lazy-static/thumbnails/c28fe884-c078-4866-8064-43ad75ce92e9.jpgThessaly: "Into the Microbial World with little Hippocrates" A Dihos Omega Tale (2021) [English]In this activity, iGEM Thessaly in collaboration with Dihos Omega, we presented our children's book content in a fun and interactive way with many many little new friends https://static.igem.org/peertube/streaming-playlists/hls/d50e3b28-5a8a-4250-9f74-bb84add587db/2ca9bd26-24f8-4106-90d0-3a469e6b4535-master.m3u8https://video.igem.org/videos/embed/siVw4BTr7mBCpT9afkrMup70042021-10-18T20:58:01.128ZEducationYESiGEM 2021 TeamsNOhttps://video.igem.org/w/bW4GJ9zZYPWQoF1FoDpFjNhttps://video.igem.org/lazy-static/thumbnails/202d5594-974e-4a0c-a301-b9a26076bcd4.jpgWiSTEM Panel Discussion 2021: Motherhood in STEMMotherhood in STEM speakers: Kanchana Gamage joined STEM POINT East in January 2020 to combine her passion for education and STEM – specifically aviation. Having been a teacher and a Headteacher in Hertfordshire schools she was determined to help schools. She completed her Masters at the University of Cambridge in 2015 and this led her to lead the Primary PGCE Programme at Anglia Ruskin University as a Senior Lecturer. Since then she has also led the MEd in Leading Teaching and Learning at The University of Hertfordshire for the HertsCam Network. Camilla Infanger had done her BA in Economics and Politics from London Metropolitan University, MSc in International Management at ESPM. She is a Researcher of gender studies, with an emphasis on the dynamics of motherhood in the academic career. She is also a member of the Parent in Science movement and research collaborator at the University of Sao Paulo in the Public Policy Research Center. Dr. Marie McCausland is a scientist and maternal health advocate who experienced a near-miss in 2017 due to postpartum preeclampsia following the birth of her son. She has worked throughout many sectors through her varied career from Industry to Academia and is now a serial entrepreneur. Today she works as a Postpartum Doula and is the Executive Director of her Nonprofit Mom Effect. Check out the website for more information on the following sessions: https://igem.org/After_iGEM/Initiatives/Women-in-STEM/panel-discussion Contact us: wistem@igem.org https://static.igem.org/peertube/streaming-playlists/hls/5887d4ec-63f3-4881-9b93-5fb64eadd426/f2c56893-93c9-40cf-b427-0b98731573e9-master.m3u8https://video.igem.org/videos/embed/bW4GJ9zZYPWQoF1FoDpFjN40310192021-10-18T22:56:54.369ZYESiGEM CommunityNOhttps://video.igem.org/w/x4Pc8rCkrgN9uU2KNkLeTAhttps://video.igem.org/lazy-static/thumbnails/d7219b2f-871b-4f0b-96e5-298c5f380814.jpgThessaly: Extracting DNA from a banana - Athens Science Festival (2021) [Greek]Thessaly: Extracting DNA from a banana - Athens Science Festival (2021) [Greek]https://static.igem.org/peertube/streaming-playlists/hls/fb939cdf-e386-4301-a850-9a3a94d3f394/9889e6a6-9561-4c00-80eb-3938a6efc9d6-master.m3u8https://video.igem.org/videos/embed/x4Pc8rCkrgN9uU2KNkLeTA402062021-10-19T12:04:28.642ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/frZKFvophcsdzU951a5mxvhttps://video.igem.org/lazy-static/thumbnails/cfcfc2c3-225d-44f8-8801-6393d9631ae6.jpgXJTLU-CHINA: Automation (2021) [English]This workstation will show our excellence in automation, the design and implications for synthetic biology products will be described in our wiki.https://static.igem.org/peertube/streaming-playlists/hls/7501208a-b77d-4eae-81f4-64327f209723/4a214c14-7a3a-4708-a428-4fb0cd8f4ef7-master.m3u8https://video.igem.org/videos/embed/frZKFvophcsdzU951a5mxv88052021-10-21T20:15:19.524ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/h9hugs93ESNxCYmFTxNEdxhttps://video.igem.org/lazy-static/thumbnails/bcc13dcc-63a3-43e8-bf43-dc00a3bc394a.jpgIndustry Talks 2021: Evolving your CareerIndustry Talks 2021: Evolving your Careerhttps://static.igem.org/peertube/streaming-playlists/hls/82ba5454-4b9a-4b9a-ad41-f72b686a7eef/3da44a56-fa38-4a92-b9fc-00607e06f9a4-master.m3u8https://video.igem.org/videos/embed/h9hugs93ESNxCYmFTxNEdx3997042021-10-19T18:10:51.278Zindustry CAREERYESiGEM CommunityNOhttps://video.igem.org/w/qLJkgukwiqNpYyKivfj2KNhttps://video.igem.org/lazy-static/thumbnails/bbe379cd-992d-42dd-b7d9-c7232c77da23.jpgUnB/Embrapa (2021) - Project PromotionUnB/Embrapa (2021) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/c89a2450-df30-493b-9966-1031580f41a0/567990d7-3b37-4155-8f89-19ade0389ed7-master.m3u8https://video.igem.org/videos/embed/qLJkgukwiqNpYyKivfj2KN1190692021-10-20T15:09:40.673ZYESiGEM Design LeagueNOhttps://video.igem.org/w/3Fm9f2ryAw4qsdpHE44Zydhttps://video.igem.org/lazy-static/thumbnails/e9d5a6b8-cf05-44f0-bf3c-3798cb10b39e.jpgUTPrimers (2021) - Project PromotionUTPrimers (2021) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/15b0b286-3307-4ca8-a67a-a27c9322b978/80979923-c0b8-4f1b-a146-957f5c65a47a-master.m3u8https://video.igem.org/videos/embed/3Fm9f2ryAw4qsdpHE44Zyd1210652021-10-19T21:40:14.225ZYESiGEM Design LeagueNOhttps://video.igem.org/w/uP5y66zFyCWdVPsya1oUSAhttps://video.igem.org/lazy-static/thumbnails/f41fdec9-abf6-49ed-8a9b-0bae59d3aa13.jpgIXORA (2021) - Project PromotionIXORA (2021) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/e952a54c-ca1a-45fd-8825-e6446769a2d6/ad0ef4c5-4f51-4782-b7f6-68c33a46c1a5-master.m3u8https://video.igem.org/videos/embed/uP5y66zFyCWdVPsya1oUSA1200522021-10-19T21:42:52.149ZYESiGEM Design LeagueNOhttps://video.igem.org/w/oaNGz2DhX3bQLU74Z7z23Whttps://video.igem.org/lazy-static/thumbnails/e5dab352-8271-4f32-a207-bb8688f6c9a5.jpgCNPEM.Brazil (2021) - 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produce this yearhttps://static.igem.org/peertube/streaming-playlists/hls/aadcc1ce-54b4-4945-9d2d-c59001920faa/937032ce-7c8a-496e-a781-80debc238443-master.m3u8https://video.igem.org/videos/embed/n6JoS3eMzzrHqDxmjfATDL850472021-10-20T12:33:19.134ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/vBwJ269nser2N3eFe4u6ybhttps://video.igem.org/lazy-static/thumbnails/31057f50-5d87-4541-b3db-c39129b8f7e8.jpgVilnius-Lithuania: "6th SynBio Snese" usage instructions (2021) [English]A quick preview of how to use "6th SynBio Sense" platform.https://static.igem.org/peertube/streaming-playlists/hls/efcefcda-af86-47c0-b95f-f32afa31ebee/0d9b75e8-0f1c-46b0-8336-f4772d25e198-master.m3u8https://video.igem.org/videos/embed/vBwJ269nser2N3eFe4u6yb41020132021-10-20T13:02:33.706ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/1yEqNLEAeXqhFaCQYKBb9bhttps://video.igem.org/lazy-static/thumbnails/e9c5644c-fb6f-464b-8591-51a68e02e5f6.jpgVilnius-Lithuania: "6th SynBio Snese" promotion (2021) [English]Vilnius-Lithuania: "6th SynBio Snese" promotion (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/048f7b88-5894-400c-b05a-32cceb05fa6a/dc1ad848-6b7a-43c3-9ebb-32577114563c-master.m3u8https://video.igem.org/videos/embed/1yEqNLEAeXqhFaCQYKBb9b23019082021-10-20T13:15:49.967ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/4gVmXMKkVtkdRobkniHE3Yhttps://video.igem.org/lazy-static/thumbnails/4e611eb0-8d5d-4ce8-a71b-6ffe987b2806.jpgVilnius-Lithuania: Sense Lab: Touch (2021) [English]Vilnius-Lithuania: Sense Lab: Touch (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/1a847529-c035-46ae-a0d5-f26595d5505c/0ed77d7c-4599-4ffe-908b-719e16b553b2-master.m3u8https://video.igem.org/videos/embed/4gVmXMKkVtkdRobkniHE3Y96012021-10-20T13:21:32.620ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/icwNHguRYCSWzBiBB4V1ishttps://video.igem.org/lazy-static/thumbnails/e0acffc7-705e-4749-bf59-233f5721ed86.jpgVilnius-Lithuania: Sense Lab: Taste (2021) [English]Vilnius-Lithuania: Sense Lab: Taste (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/8b4785ee-bc61-44e1-8e2c-2469ef175c8c/bbb5a547-4192-4c90-867f-b76201fd9142-master.m3u8https://video.igem.org/videos/embed/icwNHguRYCSWzBiBB4V1is88020452021-10-20T13:23:59.461ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/8mRKGGUN8LF6r6rUVJe97Rhttps://video.igem.org/lazy-static/thumbnails/99b75533-c675-449d-b9e9-1cff269d4459.jpgVilnius-Lithuania: Sense Lab: Smell (2021) [English]Vilnius-Lithuania: Sense Lab: Smell (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/3b9981f8-0c12-47fb-bee5-e590825003f5/723732fd-c854-4991-b146-48d4a3b4222f-master.m3u8https://video.igem.org/videos/embed/8mRKGGUN8LF6r6rUVJe97R67019472021-10-20T13:25:11.869ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/fjkVWwtYZCD4yoZwPfiDnjhttps://video.igem.org/lazy-static/thumbnails/4d522530-44a8-4e6f-a641-0b5df6ce03a4.jpgVilnius-Lithuania: Sense Lab: Hearing (2021) [English]Vilnius-Lithuania: Sense Lab: Hearing (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/73ef9c84-b1e0-4e4f-b088-95f9497e72f0/b6e932a7-2d08-46aa-a54f-d0fd87e37958-master.m3u8https://video.igem.org/videos/embed/fjkVWwtYZCD4yoZwPfiDnj70020282021-10-20T13:26:05.172ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/bQQXvtzFMbKdCctKaZiGhYhttps://video.igem.org/lazy-static/thumbnails/60b9d464-c5e3-4db8-9325-d354c5b683b3.jpgVilnius-Lithuania: Sense Lab: Vision (2021) [English]Vilnius-Lithuania: Sense Lab: Vision (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/57cd4226-ed6d-4d11-bffc-9e6dca8efc90/90082e67-521a-4586-9fdd-e3a283a5e005-master.m3u8https://video.igem.org/videos/embed/bQQXvtzFMbKdCctKaZiGhY67019542021-10-20T13:27:50.574ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/misSJKnByJwsvHs5s6pZRihttps://video.igem.org/lazy-static/thumbnails/72bdac5a-d90d-40af-b0c7-f15dfa5a5f54.jpgSZU-China: HPfanrenzhang (2021) [Chinese]This is the HumanPractice video of the 2021 SZU-Chinahttps://static.igem.org/peertube/streaming-playlists/hls/a466fabd-d696-4ab5-a78d-ee53dcca0257/9ad0cbb5-6d84-4000-a1b8-ea27a306fe08-master.m3u8https://video.igem.org/videos/embed/misSJKnByJwsvHs5s6pZRi2680442021-10-20T14:06:28.824ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/oALr8wrDzn99vvhxYks1q3https://video.igem.org/lazy-static/thumbnails/1d01fffc-3622-459c-bf94-75588491e03c.jpgSZU-China: HPshiyanshi (2021) [Chinese]This is the Lab tour of the 2021 SZU-iGEMhttps://static.igem.org/peertube/streaming-playlists/hls/b703b8bf-c4f9-4535-928d-ac602d2b6972/9a9be105-a0a5-414f-a4f2-2e74b1eb0072-master.m3u8https://video.igem.org/videos/embed/oALr8wrDzn99vvhxYks1q32860442021-10-20T14:27:43.505ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/nbMU67kkapkKj7cAf2PXLthttps://video.igem.org/lazy-static/thumbnails/9c656720-8890-4816-a106-8b58d77bfeeb.jpgHopkins: Type IIs Restriction Enzymes (2021) [English]A beautiful video from the @Johns Hopkins iGEM team about the power of type IIs restriction enzymes and how they can be used for golden gate cloninghttps://static.igem.org/peertube/streaming-playlists/hls/ab91a29f-cac1-4770-99a4-cdecfa54fbf7/bc5ace4b-4b20-4ce6-95ea-6f63437e38e8-master.m3u8https://video.igem.org/videos/embed/nbMU67kkapkKj7cAf2PXLt1030422021-10-20T14:26:30.460ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/gC2tiQRvVN26WbjCXcFRsYhttps://video.igem.org/lazy-static/thumbnails/d97bbf2f-af8d-4216-a786-b1f8836efe45.jpgMIT: Virtual LabSpace Screen Recording (2021) [English]A screen recording of how the virtual labspace functionshttps://static.igem.org/peertube/streaming-playlists/hls/7e80c315-6b04-4e87-b742-477f37c21b28/3270b4e5-8d29-4c6d-b4af-52e2c16489b4-master.m3u8https://video.igem.org/videos/embed/gC2tiQRvVN26WbjCXcFRsY1290152021-10-20T14:31:16.428ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/scybwbmm1JEZYK5hDZdYHyhttps://video.igem.org/lazy-static/thumbnails/6e8cfc14-18e5-40b4-93d2-fd98d1f94027.jpgVilnius-Lithuania: SenseLab: Touch (2021) [English]Vilnius-Lithuania: SenseLab: Touch (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/d42a9e7e-2c84-493e-96b8-a54b4b75c8da/9d7fbdfa-cda2-4e50-95ed-bb296ac23412-master.m3u8https://video.igem.org/videos/embed/scybwbmm1JEZYK5hDZdYHy96020412021-10-20T14:56:20.883ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/a6GHVTt3u7mWvMUfYX2q7Bhttps://video.igem.org/lazy-static/thumbnails/33e2ff50-ef47-4c48-b3e8-54b0135a5936.jpgiGEM 2021: Diagnostics Track Projects (Trailer)iGEM 2021: Diagnostics Track Projects (Trailer)https://static.igem.org/peertube/streaming-playlists/hls/49ae102c-7247-4014-a4ba-60c2559e90f7/4c1b952c-2768-49cc-9ac7-694d638bc354-master.m3u8https://video.igem.org/videos/embed/a6GHVTt3u7mWvMUfYX2q7B16508222021-10-20T15:17:03.781ZtrailerdiagnosticYES2021 Giant JamboreeNOhttps://video.igem.org/w/8o9ahomd9DxTA8XJhHeubJhttps://video.igem.org/lazy-static/thumbnails/22705192-9ae9-4c10-afeb-878c093bc23e.jpgiGEM 2021: Software Track Projects (Trailer)iGEM 2021: Software Track Projects (Trailer)https://static.igem.org/peertube/streaming-playlists/hls/3bc75cc3-f788-49d3-a98f-c50572498ef6/7bd12052-96a5-4bd7-a043-f805ddf6a060-master.m3u8https://video.igem.org/videos/embed/8o9ahomd9DxTA8XJhHeubJ15203372021-10-20T15:46:49.698ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/bs5Q5S6mFweNn1Ea4MQnN1https://video.igem.org/lazy-static/thumbnails/137a065a-a97f-405f-b1f6-d4c0e7fbf2b9.jpgiGEM 2021: Therapeutics Track Projects (Trailer)iGEM 2021: Therapeutics Track Projects (Trailer)https://static.igem.org/peertube/streaming-playlists/hls/549fb35b-9c03-4f7b-a4a2-090dd91dfbd0/936433a1-0c88-492b-b1b5-75323425c0f7-master.m3u8https://video.igem.org/videos/embed/bs5Q5S6mFweNn1Ea4MQnN120007792021-10-20T15:45:58.849ZtherapeuticsYES2021 Giant JamboreeNOhttps://video.igem.org/w/qrwVENeZzXpHQkPRkAd12fhttps://video.igem.org/lazy-static/thumbnails/b3b8056a-ab4f-4447-8ee5-d7c2ad1446da.jpgiGEM 2021: Environment Track Projects (Trailer)iGEM 2021: Environment Track Projects (Trailer)https://static.igem.org/peertube/streaming-playlists/hls/c5ebfb01-fe0e-46a5-9157-3a2e73d7cfe8/40fb5378-a461-4e79-90f2-e75f8ceb6eb4-master.m3u8https://video.igem.org/videos/embed/qrwVENeZzXpHQkPRkAd12f24709012021-10-20T15:43:07.917ZenvironmenttracksYES2021 Giant JamboreeNOhttps://video.igem.org/w/2qJtvwzB3hs1RMKzVbxEsthttps://video.igem.org/lazy-static/thumbnails/9f99760c-36bb-4fa0-a3f7-e521c1087c1d.jpgReflections of local realities #2: What it requires to democratize SynBio knowledgeSession with SynBio Indonesia and SynBio Brasil.https://static.igem.org/peertube/streaming-playlists/hls/0b8d2a33-e0fc-47d3-ab87-3990f3a3e9af/dbb6edf7-c488-420f-8770-2ca9713bbd69-master.m3u8https://video.igem.org/videos/embed/2qJtvwzB3hs1RMKzVbxEst1455012021-10-20T19:03:44.081ZYESiGEM CommunityNOhttps://video.igem.org/w/e65P5MFnW9SaqxAkgwhVAFhttps://video.igem.org/lazy-static/thumbnails/1eb99a33-e40a-49e0-8903-4ac76c974b7f.jpgReflections of local realities #1: How to engage local people solving local problemsSession with Allbiotech and IBLoT.https://static.igem.org/peertube/streaming-playlists/hls/69fc7c9e-16e3-4d5a-99f1-a17bdbb7cdcf/6e1a82f6-ec0b-40e5-a9d1-8d064fe6fa92-master.m3u8https://video.igem.org/videos/embed/e65P5MFnW9SaqxAkgwhVAF1486042021-10-20T20:10:51.309ZYESiGEM CommunityNOhttps://video.igem.org/w/hyyGB9vvH2H3tPVZb9x5tShttps://video.igem.org/lazy-static/thumbnails/9564907f-b7d8-42e3-9dbd-b9213c4ad994.jpgBrno_Czech_Republic: EU vs. CRISPR? - CJEU Judgment C-528/16 Explained by Former Advocate General...This interview discusses the groundbreaking case C-528/16, questioning whether products obtained by new mutagenesis techniques (NMT, f.e. CRISPR) should be exempt from the strict EU regulation. Our guest Michal Bobek was appointed in 2016 as the Advocate General at the Court of Justice, to write an opinion on this case. Despite his positive conclusion, CJEU in 2018 denied this exemption for NMT and thus affected the entire European biotechnology sector. It is no surprise that this judgment has caused a big stir and is mentioned in many articles regarding the European regulation of GMO. Links to the related documents: Directive 2001/18 https://eur-lex.europa.eu/legal-content/EN/TXT/?uri=CELEX:32001L0018 Case C-528/16 https://eur-lex.europa.eu/legal-content/en/TXT/?uri=CELEX:62016CJ0528 Michal Bobek's opinion https://eur-lex.europa.eu/legal-content/en/TXT/?uri=CELEX:62016CC0528 For more info check our wiki: https://2021.igem.org/Team:Brno_Czech_Republic/Excellencehttps://static.igem.org/peertube/streaming-playlists/hls/861e2bdd-e100-46f9-9622-f8e00c4e6438/0f9ff39e-d025-4cbc-aa3a-d2ee30360f3e-master.m3u8https://video.igem.org/videos/embed/hyyGB9vvH2H3tPVZb9x5tS28320142021-10-20T20:01:09.527ZEUCRISPRregulationYESiGEM 2021 TeamsNOhttps://video.igem.org/w/oCRcLFCoSk5DChDQw8o5Gihttps://video.igem.org/lazy-static/thumbnails/b822584a-fe58-4626-9424-9a9834f46a0b.jpgHow do we support us?: Collaborating to generate global impactHow do we support us?: Collaborating to generate global impacthttps://static.igem.org/peertube/streaming-playlists/hls/b74e260c-75f6-4514-b0c1-b9dbe6330dd1/2f48972d-673c-4b0f-8439-6c0844564174-master.m3u8https://video.igem.org/videos/embed/oCRcLFCoSk5DChDQw8o5Gi1346022021-10-20T20:57:03.660ZYESiGEM CommunityNOhttps://video.igem.org/w/pk6EyVF2jKuPySWqW2VBgghttps://video.igem.org/lazy-static/thumbnails/d696ff61-e84b-41ff-becd-35cfc372ff08.jpgThrace: Contribution to world cancer survivors day (2021) [Greek]June 6th is celebrated every year as the National Cancer's Survivors Day. For this year we reached out to three women who fought cancer and won the battle and asked them to speak about their experience, fight and feelings. Our goal was to send a positive message to every single person out there struggling with this disease. We would like to thank Daphne Kotsiani, Regina Makedou and Maria Polyzou for their participation in the video. Credits to Ilias Karabasis who conducted the interviews/contacts and to Triantafyllia Georgouli and Emmanouella Gkiozi for video editing.https://static.igem.org/peertube/streaming-playlists/hls/bceccfdc-f69d-4389-b4c6-08ffb1210179/4db88893-7ed5-487b-8f8b-24dacf1f56e9-master.m3u8https://video.igem.org/videos/embed/pk6EyVF2jKuPySWqW2VBgg535042021-10-20T20:53:19.796ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/4v3V6g5rLTaBCiesNVN496https://video.igem.org/lazy-static/thumbnails/f3eb0019-ce8e-42cb-9453-33e7d4167979.jpgFuture of SynBio: What next?Future of SynBio: What next?https://static.igem.org/peertube/streaming-playlists/hls/1c59c82e-af82-4580-96a8-1ab9ec01bb81/3c4bf24f-f770-4b7b-be56-b7ad5bf5c50a-master.m3u8https://video.igem.org/videos/embed/4v3V6g5rLTaBCiesNVN496855082021-10-20T21:08:56.325ZYESiGEM CommunityNOhttps://video.igem.org/w/hgEnNcLW3B7ytoWDCXPC1vhttps://video.igem.org/lazy-static/thumbnails/9a06d753-2ab3-4871-8933-d872bce35d73.jpgEstonia_TUIT: Dragons Biome Presentation (2021) [English]Estonia_TUIT: Dragons Biome Presentation (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/83c20668-f551-48f9-8eb0-726086d111b5/0ac5c302-c7de-4cfc-a112-9fe777487840-master.m3u8https://video.igem.org/videos/embed/hgEnNcLW3B7ytoWDCXPC1v2560142021-10-21T01:09:55.270ZEstonia_TUITCollaborationDragons BiomeYESiGEM 2021 TeamsNOhttps://video.igem.org/w/vattpeAeqYtnCV21o3XDd2https://video.igem.org/lazy-static/thumbnails/ffddbab1-e136-46ed-9ed9-3b3fd09c56cb.jpgEstonia_TUIT: JuliGEM (2021) [English]Estonia_TUIT: JuliGEM (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/ec2ba542-ee1d-49f3-94ef-99839df430e5/75101358-9c9c-4c73-a221-f93fdd8b8c53-master.m3u8https://video.igem.org/videos/embed/vattpeAeqYtnCV21o3XDd2362062021-10-21T04:22:19.502ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/j2kFJL1fCGfDV77wyYMC21https://video.igem.org/lazy-static/thumbnails/95d244c4-a584-421d-9160-08861cd74439.jpgSZU-China: Collajiangnan (2021) [English]This is the 2021 SZU-China collaboration videohttps://static.igem.org/peertube/streaming-playlists/hls/91f45efc-65f8-412d-9efd-610641fd4852/cba083d1-7c07-4229-bc9c-7bbfc5cd8aff-master.m3u8https://video.igem.org/videos/embed/j2kFJL1fCGfDV77wyYMC211400162021-10-21T05:23:15.895ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/uaBJap5khRawUnVxTZc88chttps://video.igem.org/lazy-static/thumbnails/8b7c0f1d-a189-4a29-a3a6-a097331962f6.jpgAachen: SDG (2021) [English]Aachen: SDG (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/e417980a-b86a-44c9-ad38-99995ab0b005/48951a63-8253-4573-adec-8a2fc50b784d-master.m3u8https://video.igem.org/videos/embed/uaBJap5khRawUnVxTZc88c3330432021-10-21T14:28:46.041ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/odLC8HFka2iTvgBufK1KRrhttps://video.igem.org/lazy-static/thumbnails/7e71d241-2664-45e3-9aba-495129d34421.jpgGreatBay_SCIE: Interview with Breast Cancer Patients (2021) [Chinese]In mid-August, GreatBay_SCIE held an interview with three convalescent patients through Pink Ribbon Organization. During the conversation, we discussed how large the impact of breast cancer had on the patients’ lives, as well as their self changes. More importantly, the patients’ struggles for finding their self-identities and ego created a strong empathy with our teammates. We wish to spread this video to the public, allowing more people to learn about the social situations of those patients ...https://static.igem.org/peertube/streaming-playlists/hls/b3f179c4-4078-475d-b8a3-b04cd1c5442f/45be7ef7-abf5-4a6a-94dd-467f3f5fc95e-master.m3u8https://video.igem.org/videos/embed/odLC8HFka2iTvgBufK1KRr18080432021-10-21T15:17:48.785ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/hNZRwUpWdvZM33wKF3zq6Ahttps://video.igem.org/lazy-static/thumbnails/6a96b962-44f0-4969-993b-aa8b263b0c37.jpgEstonia_TUIT: DNA extraction workshop (2021) [English]Estonia_TUIT: DNA extraction workshop (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/882215f5-dd79-49ff-a166-ba04c193ab0c/cb9bdde3-2ad8-47d3-9ac8-7c9fbcc25b5c-master.m3u8https://video.igem.org/videos/embed/hNZRwUpWdvZM33wKF3zq6A1340332021-10-21T16:13:47.289ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/sc7S4DVSqML1uw9dYWXGcFhttps://video.igem.org/lazy-static/thumbnails/919b648f-1d0f-4d1a-aa1b-4ecdd613c052.jpgEstonia_TUIT: Chromatography flower workshop (2021) [English]Music used: Turning Pages by Le Gang https://soundcloud.com/thisislegang Creative Commons — Attribution 3.0 Unported — CC BY 3.0https://static.igem.org/peertube/streaming-playlists/hls/d41b0425-a431-4e53-9015-ccd48c49103d/ea5b9991-9ba9-422b-8b33-1aa5b571be7d-master.m3u8https://video.igem.org/videos/embed/sc7S4DVSqML1uw9dYWXGcF1220242021-10-21T17:23:07.593ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/5w25TErpXP34tnLuc15adQhttps://video.igem.org/lazy-static/thumbnails/e9c93c76-12ba-41b1-8830-bfb46055aeab.jpgThrace: iGEM Thrace in European Youth Event 2021 (2021) [English]A video from our participation in European Youth Event 2021 in Strasbourg where we presented a workshop on Science Communication & Education with non-formal ways. Credits: Emmanoulea Gkiozihttps://static.igem.org/peertube/streaming-playlists/hls/24958935-d6d7-489e-ace4-56a8e64e0bac/77b3d8d1-62f0-451f-823c-e34c75a0d32f-master.m3u8https://video.igem.org/videos/embed/5w25TErpXP34tnLuc15adQ1270162021-10-21T21:43:26.727ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/6BUK7pbLWkL7dUZcMDUW8qhttps://video.igem.org/lazy-static/thumbnails/cf7e017b-d64d-486f-8305-a793c2a1e5ce.jpgEstonia_TUIT: Traffic lights workshop (2021) [English]Music used: September Rain by Yme Fresh https://bit.ly/yme-fresh Creative Commons Attribution licensehttps://static.igem.org/peertube/streaming-playlists/hls/2d813abd-6131-4884-be2a-1b768d50b716/b76c2159-ceee-49b8-97cc-77e2af1e6b86-master.m3u8https://video.igem.org/videos/embed/6BUK7pbLWkL7dUZcMDUW8q1690172021-10-21T22:44:42.559ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/424UPStZ6bFWgVxAVhSVFshttps://video.igem.org/lazy-static/thumbnails/5176e8c0-b0ef-49d0-81d2-8ced7754bb8c.jpgMIT: Golden Gate in The Lab (2021) [English]Video showing how the golden gate cloning process works in a wetlab.https://static.igem.org/peertube/streaming-playlists/hls/187191e2-03c0-46c9-9ddf-5b2fabc6ed54/3c730c1a-f5b3-4df8-b139-5107c17bce8c-master.m3u8https://video.igem.org/videos/embed/424UPStZ6bFWgVxAVhSVFs1870532021-10-21T22:47:00.718ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/7m7ugVTmeVoiDwWtZczhWhhttps://video.igem.org/lazy-static/thumbnails/679aee41-da59-44c2-9163-07df693228c4.jpgLaunch your career with the iGEM Mentors NetworkThe iGEM Mentors Network has launched! Learn as our keynote speaker Prof. Poh Chueh Loo of the National University of Singapore shares his 15+ years of iGEM experience in his talk, “the Mentorship experience as an iGEM mentor.” Prof. Poh reveals the secrets to integrating career advice through iGEM, the multiple roles within mentorship, and staying connected with your team across decades to come. Have a question for our mentors, or have some advice to share yourself? We have opportunities for you here: https://igem.org/After_iGEM/Initiatives/Mentors-Network ! Nannan Jiang, Suhasini Iyer, Gourav Saha, Smriti Suresh, Devin Camenares, Pedro Lovatt Garcia, Muhammad Marsad Siddique, Tim Ho, Erin Kim, Priyannth RS Baabu, Chris Kuffner, Shruti Sridhar, Varsha Jaisimha, Cibele Zolnier Sousa do Nascimento, and Dorothy Zhang. Launch your career with the iGEM Mentors Network. October 1, 2021. Produced by Soumodeep Sarkar of iGEM Creative Productions. https://static.igem.org/peertube/streaming-playlists/hls/3365b496-681c-49be-91a5-c0fa6c1e41c4/88a1b594-b799-49d3-9a18-37ff1ba1d4aa-master.m3u8https://video.igem.org/videos/embed/7m7ugVTmeVoiDwWtZczhWh9810372021-10-21T23:37:30.902ZMentorshipCareersMentors Network Mentor Education YESiGEM CommunityNOhttps://video.igem.org/w/o2dHLYXy313A22CC4A5Yh3https://video.igem.org/lazy-static/thumbnails/fa93f9d4-bfbb-44d0-832d-037342604063.jpgLaunch your career with the iGEM Mentors Network - extended cut with Q&A!The iGEM Mentors Network has launched! Learn as our keynote speaker Prof. Poh Chueh Loo of the National University of Singapore shares his 15+ years of iGEM experience in his talk, “the Mentorship experience as an iGEM mentor.” Prof. Poh reveals the secrets to integrating career advice through iGEM, the multiple roles within mentorship, and staying connected with your team across decades to come. Have a question for our mentors, or have some advice to share yourself? We have opportunities for you here: https://igem.org/After_iGEM/Initiatives/Mentors-Network ! Nannan Jiang, Suhasini Iyer, Gourav Saha, Smriti Suresh, Devin Camenares, Pedro Lovatt Garcia, Muhammad Marsad Siddique, Tim Ho, Erin Kim, Priyannth RS Baabu, Chris Kuffner, Shruti Sridhar, Varsha Jaisimha, Cibele Zolnier Sousa do Nascimento, and Dorothy Zhang. Launch your career with the iGEM Mentors Network. October 1, 2021. Produced by Soumodeep Sarkar of iGEM Creative Productions. https://static.igem.org/peertube/streaming-playlists/hls/b254a228-b33e-4b01-a6d8-030dfb82b722/50be12ba-a400-402b-88fd-dded89972c6a-master.m3u8https://video.igem.org/videos/embed/o2dHLYXy313A22CC4A5Yh325590322021-10-22T00:20:09.392ZMentorCareersMentors Network MentorshipEducationYESiGEM CommunityNOhttps://video.igem.org/w/2ikKPdBYbagwm62bCfB85Ghttps://video.igem.org/lazy-static/thumbnails/8dc4ce61-e48c-4034-9a29-e443c6e13b83.jpgEstonia_TUIT: Pigment extraction workshop (2021) [English]Music used: Cyberpunk - jiglr https://soundcloud.com/jiglrmusic Creative Commons — Attribution 3.0 Unported — CC BY 3.0 and neon samurai by sakura Hz https://soundcloud.com/sakurahertz Creative Commons — Attribution 3.0 Unported — CC BY 3.0https://static.igem.org/peertube/streaming-playlists/hls/0a84f51b-ec86-4be3-abdf-09985a3247e4/ff3f8f52-217d-4502-acdb-5f3a4d27688d-master.m3u8https://video.igem.org/videos/embed/2ikKPdBYbagwm62bCfB85G1300312021-10-22T01:59:52.327ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/tZx8ie4GAzaUu7eN9FUzVchttps://video.igem.org/lazy-static/thumbnails/f247ee32-aaa6-4499-9c43-375a48652a4a.jpgRochester: Upward Bound Microfluidics activity 1 (2021) [English]Rochester: Upward Bound Microfluidics activity 1 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/e2af5217-8ae7-424f-a196-177c52afc641/3acb9157-fda5-4e6a-b21d-3ecf503dd641-master.m3u8https://video.igem.org/videos/embed/tZx8ie4GAzaUu7eN9FUzVc4300172021-10-22T02:42:55.119ZrochesterBio-SpireYESiGEM 2021 TeamsNOhttps://video.igem.org/w/vkaKMgEp3XSJcZ8jZMiUxyhttps://video.igem.org/lazy-static/thumbnails/c2b9b929-16cc-4240-8a06-cd3d7a34023b.jpgRochester: Upward Bound Microfluidics activity 3 (2021) [English]Rochester: Upward Bound Microfluidics activity 3 (2021) [English]https://static.igem.org/peertube/streaming-playlists/hls/ed862a16-33d6-44c7-b385-aa30f343448e/7ab5d815-2714-4d69-84f7-890bc01fea74-master.m3u8https://video.igem.org/videos/embed/vkaKMgEp3XSJcZ8jZMiUxy3230172021-10-22T02:44:59.385ZrochesterBio-SpireYESiGEM 2021 TeamsNOhttps://video.igem.org/w/8hMGdWTscxVp9G2tQwrYmyhttps://video.igem.org/lazy-static/thumbnails/20d20d65-ae81-42e3-a008-6571d9e26c6d.jpgUnited_Shanghai_HS: PET Gig Eater (2021) - Team Presentation [English]**Title:** PET Gig Eater **Description:** Plastic waste pollution has seriously threatened the environment and creatures. Here, we designed a burying yard with concentrated PET plastics, using the modified Bacillus subtilis carried by earthworms to initially degrade PET ,accelerating the degradation of PET plastics in it. At the same time, the activities of earthworms are used to improve the distribution of engineering bacteria and enzymes,solving the difficulty of frequent mixing in the dump site. The modified engineering bacteria release PETase and MHETase to hydrolyze PET into ethylene glycol and terephthalic acid,finally metabolizing it into carbon dioxide and water. What s more ,we also inserted GFP gene into the plasmid to further track the distribution of engineering bacteria in the soil. And by detecting the fluorescence in the body or feces of the earthworms, we can know whether the engineered bacteria have been swallowed by the earthworms. The expected result is that the engineered bacteria can be carried elsewhere through the activities of earthworms, which will promote the distribution of engineered bacteria in the soil. [Wiki](https://2021.igem.org/Team:United_Shanghai_HS)https://static.igem.org/peertube/streaming-playlists/hls/3b0807d2-eab4-4104-8697-f81781ef2790/96f25fac-c6f8-4db8-b5bb-74d14ffc437b-master.m3u8https://video.igem.org/videos/embed/8hMGdWTscxVp9G2tQwrYmy8730242021-10-23T04:22:38.122ZBacillusSubtilisPETaseEarthwormMHETasePETYES2021 Team PresentationsNOhttps://video.igem.org/w/ju54JYBYtmdng12Hhoxu4fhttps://video.igem.org/lazy-static/thumbnails/1e04ab92-4d50-45ef-b660-aa6bd383aebd.jpgHKBU: Ostamer: Tackling Osteogenesis Imperfecta (2021) - Team Presentation [English]**Title:** Ostamer: Tackling Osteogenesis Imperfecta **Description:** Osteogenesis imperfecta is a group of genetic disorders that results in brittle bones due to improper collagen formation. In osteoblasts of OI patients, the Wnt signalling pathway is inhibited by sclerostin via binding to LRP5/6 co-receptors, thus lowering beta-catenin concentrations, gene expression and thus bone formation. Suppressing sclerostin by a sclerostin antibody has been shown to enhance bone mass and bone strength. However, in phase III clinical trials, the antibody also imposes severe cardiac ischemic events and worsen cardiovascular diseases in OI patients. Ostamer, our therapeutic aptamer, tackles this development via selectively binding and inhibiting loop3 of sclerostin in order to prevent sclerostin from binding to the osteoblast receptors for treatment of osteogenesis imperfecta, as well as to preserve sclerostin's secondary role as a cardiovascular regulator. Our Ostamer has received US FDA Orphan Drug Designation in 2019 in response to successful clinical testing on OI mice. [Wiki](https://2021.igem.org/Team:HKBU)https://static.igem.org/peertube/streaming-playlists/hls/95afd386-dcef-47c8-85a8-93f84b54d9a4/82ea5b87-6bd6-4d1d-8374-5426e55b9545-master.m3u8https://video.igem.org/videos/embed/ju54JYBYtmdng12Hhoxu4f8730242021-10-24T15:29:25.438ZPCRAptamerOsteogenesisimperfectaSELEXYES2021 Team PresentationsNOhttps://video.igem.org/w/ur5peKbe5XxxNYHhpT4Eovhttps://video.igem.org/lazy-static/thumbnails/057b881a-393a-4256-b10b-4ba31b1e6cbc.jpgExploring policy as a scientist with Dr. Betsy Melenbrink (Careers in SciComm)As an AAAS Science & Technology Policy Fellow at the US Department of State, Dr. Betsy Melenbrink works at the intersection between science and policy. Betsy’s background in polymer synthesis has taken her from tackling science accessibility in Africa to engineering solar panels on clothing. In this video, she shares her advice for those interested in entering the policy world, how to stay up-to-date on new policies, and perhaps most importantly, how “policy is squishy.” Host: After iGEM Science Communication Network Disclaimer: This workshop isn’t a part of iGEM Competition, and is not directed towards guiding you for medal and award eligibility. Any opinions expressed in this workshop are not reflective of any institution(s) with which we may be affiliated (except for the After iGEM Program).https://static.igem.org/peertube/streaming-playlists/hls/e640304f-e18a-4128-a569-d94f5d42ecf9/cc29940f-3b60-4ebd-a1d2-14e150e93d96-master.m3u8https://video.igem.org/videos/embed/ur5peKbe5XxxNYHhpT4Eov11060292021-10-24T23:05:15.268ZYESiGEM CommunityNOhttps://video.igem.org/w/jgyrQkBJzBmWfmqobjWWLrhttps://video.igem.org/lazy-static/thumbnails/b1e04af2-cd0c-4578-ae1f-75b284727cae.jpgNanjing_high_school: Discovery of PPM1A activator against neurodegeneration dise... (2021) - Team...**Title:** Discovery of PPM1A activator against neurodegeneration diseases based on inflammatory regulation strategies **Description:** Alzheimer s Disease, Parkinson s Disease, etc. are called neurodegeneration diseases that have caused thousands of degenerated elders and even youngsters, and have become a major social issue. These neurodegeneration diseases are caused by excessive inflammation. Currently, there is no efficient method or medicine that can be applied to cure or effectively ease these diseases. Here, our project presents a novel target- PPM1A, which is a kind of protein phosphatase for medical usage that can prevent and ease inflammation response. The PPM1A activator can be used to repress the expression of certain genes through dephosphorylation in the microglia to prevent it from turning into M1 type. In our work, Compound 5 was demonstrated as a PPM1A activator and its anti-inflammatory effect was determined. We believe implementing Compound 5 into medical usage will provide a more efficient and effective way to prevent neurodegeneration diseases. [Wiki](https://2021.igem.org/Team:Nanjing_high_school)https://static.igem.org/peertube/streaming-playlists/hls/93f0a5ca-71bf-4ad6-aa7e-4943868fe4f9/c0a43281-6ccc-41fb-9953-4bc65af9249e-master.m3u8https://video.igem.org/videos/embed/jgyrQkBJzBmWfmqobjWWLr9960162021-10-25T06:29:57.507ZYES2021 Team PresentationsNOhttps://video.igem.org/w/3RgtqigNr8GCr6EF7nHCkjhttps://video.igem.org/lazy-static/thumbnails/d6d96d03-8e8c-4b29-9ca9-7967f8fc684e.jpgShanghai_United: ASeeker: Arsenic Biosenser (2021) - Team Presentation [English]**Title:** ASeeker: Arsenic Biosenser **Description:** As a non-metallic element, arsenic has a very important use in industry. But equally, its harm to the human body is also very huge, even causing cancers. So what we need to do is find a more efficient way to detect the presence and the amount of arsenic around us. In this case, we design to combine the arsA, arsD, and arsR genes to make up the ARS operon pattern which could respond to the presence of arsenic. Afterward, we use green fluorescent proteins to ring the alarm by glowing. We hope our project could promote the public awareness of arsenic threat and provide a better solution to detect arsenic. [Wiki](https://2021.igem.org/Team:Shanghai_United)https://static.igem.org/peertube/streaming-playlists/hls/171341e9-37d0-4d9c-a1ae-9926dc10f3a8/99ce8d45-b64a-4566-bc31-3216a5a68434-master.m3u8https://video.igem.org/videos/embed/3RgtqigNr8GCr6EF7nHCkj11210232021-10-25T07:25:07.268ZYES2021 Team PresentationsNOhttps://video.igem.org/w/1acjZXpbBCPVVMzuVxndEphttps://video.igem.org/lazy-static/thumbnails/0ee01e33-fd97-45ce-96dc-f30407f3f968.jpgShanghai_Metro_HS: Ceres: Silage additive for the gastrointestinal health of liv... (2021) - Team...**Title:** Ceres: Silage additive for the gastrointestinal health of livestocks **Description:** Our project aims to create a gene-edited E.coli bacteria as a silage additive that can help improve the digestion of ruminants on silage and further improve the quality of the livestock. In the selection of the desired gene, PKC-001 from Pseudomonas aeruginosa was reported to secrete the cellulase which maintains well activity under both acid and base conditions. Therefore, we optimized its codon and further constructed the plasmid to combine the optimized gene-PKC-OP, which was transformed into the E. coli for expressing itself. Even though we encountered many difficulties in lab work, we finally obtained our engineered E. coli which could express the desired cellulase. We hope this silage additive could contribute the stockbreeding development and improve life quality in the future. [Wiki](https://2021.igem.org/Team:Shanghai_Metro_HS)https://static.igem.org/peertube/streaming-playlists/hls/0148acbf-5a74-4564-9a47-106ffc255f3b/2b9e8210-a9cd-4866-bcfc-56e50db0e62b-master.m3u8https://video.igem.org/videos/embed/1acjZXpbBCPVVMzuVxndEp11390112021-10-25T10:16:10.959ZYES2021 Team PresentationsNOhttps://video.igem.org/w/fjZYbTALB6xu1SxQbRVnbGhttps://video.igem.org/lazy-static/thumbnails/d71fcc6a-67e0-4c01-9a83-c1360b867c9f.jpgWFLA_YK_PAO: PEToracity: Intestinal probiotics to digest microplastics (2021) - Team Presentation...**Title:** PEToracity: Intestinal probiotics to digest microplastics **Description:** PET is a clear, strong, and lightweight plastic that is widely used for packaging foods and beverages. Because microplastics are not digested by living organisms, they will be accumulated inside human body, causing uncertain harm. Actually, chemical traces of plastic particles have been found in human organs and tissue. Therefore, we focus on the constrcution of the genetically engineer probiotics to produce the IsPETase and MHETase, two enzymes that could break down PET and degrade the micro-plastics in the human digestive tract. [Wiki](https://2021.igem.org/Team:WFLA_YK_PAO)https://static.igem.org/peertube/streaming-playlists/hls/74070db9-a631-44d2-8c53-7fc62eb25478/77ebf2e0-0b2c-45ea-ae83-96442f37963e-master.m3u8https://video.igem.org/videos/embed/fjZYbTALB6xu1SxQbRVnbG11130362021-10-25T11:35:06.228ZYES2021 Team PresentationsNOhttps://video.igem.org/w/dBZpYS2L8VAMA6P7rnQ1Fbhttps://video.igem.org/lazy-static/thumbnails/ba7cfd88-a233-443f-8726-989c7c34c91e.jpgShanghai_City_United: Innovative poultry beverage that contains lactobacillus th... (2021) - Team...**Title:** Innovative poultry beverage that contains lactobacillus that produces xylanase **Description:** Non-starch polysaccharides (NSP), such as xylans, are one of the most abundant substances found in grains but few animals can digest them well. We noticed Xylanase, a type of enzyme that degrades the linear polysaccharide xylan, which could be served as a dietary supplement to treat the poor digestion issue. In this project, we introduced a probiotic which was previously genetically edited by us to possess the ability to secret Xylanase and form a feed that can be applied in monogastric s, mainly poultry s daily meals. The product will be designed as a type of beverage to make up for the poultry s insufficiency of the xylan digestive enzymes In this case, poultry will be able to absorb more energy when given the same amount of feed, which will further ease the food resource shortage in the world. [Wiki](https://2021.igem.org/Team:Shanghai_City_United)https://static.igem.org/peertube/streaming-playlists/hls/66341402-dc7b-4043-9db0-cb58f7233f50/4709cca1-54fb-4ab3-98e8-331881dbfb20-master.m3u8https://video.igem.org/videos/embed/dBZpYS2L8VAMA6P7rnQ1Fb11510202021-10-25T11:57:20.853ZYES2021 Team PresentationsNOhttps://video.igem.org/w/5y4GiX2PKdR9hmrTDYEYRZhttps://video.igem.org/lazy-static/thumbnails/681b5978-e9bb-4b31-b6e0-de88959dc6bb.jpgCKWA-China: LonEase (2021) - Team Presentation [English]**Title:** LonEase **Description:** Cancer recurrence after surgical treatment is currently a major problem facing humans, and cancer recurrence is a huge threat to cancer patients. For example, bladder cancer has a recurrence of up to 24%-84% of patients within 5 years after surgical resection, and the overexpression of C-MYC protein is approximately related to 44%-69% of the cases. We investigated the urinary tract pathogenic Escherichia coli (UPEC) Lon protein and find it can effectively degrade C-MYC protein, thereby inhibiting the proliferation of cancer cells. We use E. coli to produce highly active Lon protease this year, and propose this protein can be designed into drugs to improve the surgical prognosis of bladder cancer populations with C-MYC gene overexpression. [Wiki](https://2021.igem.org/Team:CKWA-China)https://static.igem.org/peertube/streaming-playlists/hls/24dea1e4-e4e1-4025-8f8c-b98d04ceca03/5797a99c-f8ec-4069-bc5a-698d4e17df25-master.m3u8https://video.igem.org/videos/embed/5y4GiX2PKdR9hmrTDYEYRZ11890132021-10-25T12:48:17.775ZYES2021 Team PresentationsNOhttps://video.igem.org/w/f6gzFVkAe4YieB9Cf6utP2https://video.igem.org/lazy-static/thumbnails/b0855bef-1c79-4bf2-a46d-fd9d4e429305.jpgFujian_United: Alpha Luco - Development of a new S. cerevisiae to self-secrete g... (2021) - Team...**Title:** Alpha Luco - Development of a new S. cerevisiae to self-secrete glucoamylase **Description:** In the fermentation method widely applied in ethanol production, glucoamylase is an essential raw material, which accounted for a lot of costs. Our project aimed to develop the Saccharomyces cerevisiae in order to self-secrete glucoamylase, thus, reducing the cost also improving the fermentation efficiency. In the lab, we started off by constructing 4 plasmids, pYES2-ctl, pYES2-TGC, pYES2-HGC, and pYES2-IGC, with different promoters, respectively by Golden Gate Cloning and then transformed them into the yeast. After selection by several enzyme activity tests and fermentation performance tests, we finally obtained the expected engineered yeast and hope our work will contribute the alcohol manufacturing in the future. [Wiki](https://2021.igem.org/Team:Fujian_United)https://static.igem.org/peertube/streaming-playlists/hls/721c431a-38fd-433f-8386-46d441edf7e3/c606733d-6645-40f9-bb31-aae138a02a06-master.m3u8https://video.igem.org/videos/embed/f6gzFVkAe4YieB9Cf6utP29080302021-10-26T03:10:52.635ZYES2021 Team PresentationsNOhttps://video.igem.org/w/mDFxddcRSDWjqAZ28bLTbvhttps://video.igem.org/lazy-static/thumbnails/ec5d0f63-c422-464b-a92c-66d42887219a.jpgShanghai_Metro_Utd: In vitro production by E.coli of Angiogenin and the potentia... (2021) - Team...**Title:** In vitro production by E.coli of Angiogenin and the potential in curing neurodegenerative diseases **Description:** Parkinson s disease (PD) is an inflammatory brain disease that affects 20 million people worldwide and the incidence is expected to rise. However, current medical treatment is not optimal, and thus an effective treatment is very much needed. Surprisingly, we discovered that a specific protein called Angiogenin is reported as a potential therapeutic target to neurodegenerative disease given. In this project, our team Healers on Vessels aim to construct a recombinant E. coli by biomedical engineering that can continuously synthesize functional ANG protein, which could possibly serve as an in vitro method to massive produce ANG for clinical use. [Wiki](https://2021.igem.org/Team:Shanghai_Metro_Utd)https://static.igem.org/peertube/streaming-playlists/hls/a739a8ae-ceaf-4584-8285-3db79148102d/dc1d21fb-acda-4574-a7ea-b69b1763ab7d-master.m3u8https://video.igem.org/videos/embed/mDFxddcRSDWjqAZ28bLTbv11940282021-10-26T07:05:45.324ZYES2021 Team PresentationsNOhttps://video.igem.org/w/t6gKhnYJwt7XLfJpJHLHK7https://video.igem.org/lazy-static/thumbnails/f5e91af7-c298-433d-8763-2e3c0bc471d1.jpgShanghai_Metro: Gene technology for protecting patented bacterial strains (2021) - Team Presentat...**Title:** Gene technology for protecting patented bacterial strains **Description:** Protecting patent biotechnological strains is usually a costly and time-consuming process. Aiming to provide a fast, practical, and inexpensive way to protect patent rights over registered strains, our team constructed a genetic tool that disables the strains if they re replicated without authorization. This mechanism is developed based on the Type IV Secretion System (T6SS) of Gram-negative bacteria which would inject effectors to inhibit the growth of recipient cells. However, these effectors are inactive in the donor due to the presence of immune protein. In our project, the plasmid that constitutively expresses Tke (effctor) was transformed into E. coli, and the immune factor Ike is induced by tetracycline. After several tests, a suitable concentration of inducer that effectively disables the defense system was determined, which allowing the normal multiplication of the E. coli. [Wiki](https://2021.igem.org/Team:Shanghai_Metro)https://static.igem.org/peertube/streaming-playlists/hls/db632aa8-ea65-4d01-a9e7-c1030c40f1f8/28397f96-5788-4066-91b7-9832549f9a1a-master.m3u8https://video.igem.org/videos/embed/t6gKhnYJwt7XLfJpJHLHK711980172021-10-26T07:35:06.748ZYES2021 Team PresentationsNOhttps://video.igem.org/w/qd17TVHskRidYcpXgoPjmZhttps://video.igem.org/lazy-static/thumbnails/2ee4e8e8-5c37-414e-94f2-6f7c964cd6cb.jpgBeijing_United: Construction of the engineered S. cerevisiae that Breaks Down Wh... (2021) - Team...**Title:** Construction of the engineered S. cerevisiae that Breaks Down Wheat Starch-B for Alcohol Production **Description:** Due to COVID-19, the demand for alcohol products has increased a lot, mostly for medical use, and this lead to the increase of the market price of the medical alcohol, as a result, some people not able to afford medical alcohol. One way we thought could solve this problem is to use the gene-editing method to edit the yeast when fermenting wheat starch, that way it can accelerate the efficiency of the process when producing alcohol. We edit the genes of xylanase, -xylosidase, and acetyl-xylan esterase into the yeast, therefore the gene edited yeast can process these three enzymes by themself. Each kind of enzyme s role is to break down the polymer of carbohydrate chain in the starch, so the yeast can use the monosaccharides to produce alcohol. Overall, The gene-edited yeast could reduce the cost of alcohol production and take advantage of wheat B starch. [Wiki](https://2021.igem.org/Team:Beijing_United)https://static.igem.org/peertube/streaming-playlists/hls/c408538b-5302-4ce5-a1d0-324fa3bb4ea1/c38c155d-c05f-43c0-8291-fc8549694dc6-master.m3u8https://video.igem.org/videos/embed/qd17TVHskRidYcpXgoPjmZ11780272021-10-26T07:58:57.960ZYES2021 Team PresentationsNOhttps://video.igem.org/w/vxHSy8zoUTfzHKk9kvNhvChttps://video.igem.org/lazy-static/thumbnails/cf7a5670-b8bf-4e5d-b775-e68c8e84fb7c.jpgXiamen_City: Pecteast: the construction of the functionable wine yeast to direct... (2021) - Team...**Title:** Pecteast: the construction of the functionable wine yeast to directly degrade pectin **Description:** Pectin will cause impurity and lower the texture of fruit wine, which leads to unfortunate sales. Moreover, the discouragement of pectin during fruit wine production has a negative impact on the environment that goes against the UN sustainable development goals. Therefore, we use the CRISPR-Cas9 technique to insert part of the pectinase gene into the yeast gene to form yeast with the function of decomposing pectin. By using this multi-functional yeast, the pectin in fruit will be decomposed during the fermentation of fruit wine. And the multi-functional yeast is going to be filtered out at the end of the fermentation. [Wiki](https://2021.igem.org/Team:Xiamen_City)https://static.igem.org/peertube/streaming-playlists/hls/ef46e1df-3bc3-46ba-a686-e83899b8d456/f21a8a61-3705-49eb-bb59-03b7f19b5cb9-master.m3u8https://video.igem.org/videos/embed/vxHSy8zoUTfzHKk9kvNhvC10910322021-10-26T08:07:17.061ZYES2021 Team PresentationsNOhttps://video.igem.org/w/1ETv9tMEdq7uWUdKuLd1nXhttps://video.igem.org/lazy-static/thumbnails/737b13d2-7f16-49e6-81c9-15adca0a92f5.jpgGDSYZX: Reconstruction of a highly efficient feather degrading Streptomyces sp. ... (2021) - Team...**Title:** Reconstruction of a highly efficient feather degrading Streptomyces sp. SCUT-3 for waste recycling **Description:** Feather is one of the highest protein-containing resource in nature but is poorly reused. Previous reports have showed that Streptomyces sp. SCUT-3 can efficiently degrade feather. Although co-overexpression of CDO1 and protease Sep39 improved SCUT-3 s feather degradtion efficiency distinctly, SCUT-Ocdo1-sep39 yield fewer cells than SCUT-3. In this study, we revealed how to use different promotesr such as pro22610, pro24880 and pro1380 to increase SCUT-3 s feather degradtion efficiency without influence the growth of Streptomyces sp. SCUT-3. [Wiki](https://2021.igem.org/Team:GDSYZX)https://static.igem.org/peertube/streaming-playlists/hls/056e00b8-8cac-4bef-80e3-8ff0bd8515d9/f9301039-d1ec-46cf-b12b-a8ba19248237-master.m3u8https://video.igem.org/videos/embed/1ETv9tMEdq7uWUdKuLd1nX10040232021-10-26T09:03:09.894ZAsia,China,HighSchoolYES2021 Team PresentationsNOhttps://video.igem.org/w/jgsj55zQkvrb6mazqHnicdhttps://video.igem.org/lazy-static/thumbnails/58bc4f22-b27f-4e27-8237-8a4a1718353c.jpgECNUAS: Silent Spring: Cell-free Atrazine Biosensor (2021) - Team Presentation [English]**Title:** Silent Spring: Cell-free Atrazine Biosensor **Description:** Atrazine is commonly used as a herbicide for production and distribution but harm to human body. Our team is working on the development of a portable, efficient and inexpensive cell-free biosensor that can detect the Atrazine derivatives through fluorescent color. To achieve our final goal, we firstly constructed a Recombinant E. coli in order to veryfy our design and we would further explore the cell-free experiments to improve the applicability and functionality of our biosensor. [Wiki](https://2021.igem.org/Team:ECNUAS)https://static.igem.org/peertube/streaming-playlists/hls/93ecde14-b011-45c6-8413-0ae1c8558886/9a8c8fe4-0ca4-4b5d-89fe-e22293c588c4-master.m3u8https://video.igem.org/videos/embed/jgsj55zQkvrb6mazqHnicd11540222021-10-26T09:42:59.140ZYES2021 Team PresentationsNOhttps://video.igem.org/w/4XVKDwJQggjwjjyHxEQWSfhttps://video.igem.org/lazy-static/thumbnails/99d205cb-04f6-4f3e-ae19-418afa8c32ec.jpgThe_Webb_Schools: Lighthouse - Fighting Against Depression with Genetically Cons... (2021) - Team...**Title:** Lighthouse - Fighting Against Depression with Genetically Constructed Plasmids **Description:** Depression, a common mood disorder that brings sadness and emptiness to people, often remains untreatable and requires a treatment method with minimal side effects to alleviate the pain of patients. Current treatment methods of depression are either ineffective or have side effects on patients physiological functioning. Through bioengineering, our team presents a novel method to reduce the severity of depression and, as our name indicates, brings light to patients dark world. We inserted efeB, a gene that can reduce oxidative stress, into a constructed plasmid and placed the gene into bacteria for more effective treatment purposes. Tests show that bacteria with constructed plasmid can suppress the level of MDA under 20 mmol/mg and can survive better than the bacteria without this plasmid under high hydrogen peroxide condition. Our team believes that our product can bring effectual treatment to depression. [Wiki](https://2021.igem.org/Team:The_Webb_Schools)https://static.igem.org/peertube/streaming-playlists/hls/201a7312-e4f6-467b-b8f1-84957cc1957a/bc6cdaf6-0e36-4da5-9530-42702d5dc72a-master.m3u8https://video.igem.org/videos/embed/4XVKDwJQggjwjjyHxEQWSf7820142021-10-26T10:22:41.437ZYES2021 Team PresentationsNOhttps://video.igem.org/w/rrtVAxeSBCen4qTwcKYgDRhttps://video.igem.org/lazy-static/thumbnails/c3689930-b8cb-4ae0-8a4c-9e05fa27d9a2.jpgSHSID: Dual biosynthesis of putrescine through the yeast by reconstructing the p... (2021) - Team...**Title:** Dual biosynthesis of putrescine through the yeast by reconstructing the plasmids **Description:** Tropane alkaloid-derived medicines are under supply shortage, but growing demand. The extraction of putrescine from plants was time-consuming and low yields, which is seen as a vital limiting factor of tropane alkaloids production. Our project aims at genetically modifying yeast to efficiently produce putrescine in large quantities. On one hand, we designed to introduce the spe1gene to over-express the enzyme that catalyzes the reaction producing putrescine from ornithine. On the other hand, we also introduced two other genes, AsADC derived from oats and speB derived from E. coli which could produce enzymes catalyzing the reaction producing putrescine from arginine. All above will make the yeast a factory to continuously biosynthetic putrescine to support tropane alkaloids production. [Wiki](https://2021.igem.org/Team:SHSID)https://static.igem.org/peertube/streaming-playlists/hls/ce034502-1967-49d0-b980-cfc939237aff/a8058dce-de78-4ba5-9850-0d47fe9daabf-master.m3u8https://video.igem.org/videos/embed/rrtVAxeSBCen4qTwcKYgDR11100292021-10-26T10:45:27.079ZYES2021 Team PresentationsNOhttps://video.igem.org/w/tfwxvxCs3sg7My7stdGjP5https://video.igem.org/lazy-static/thumbnails/b4f65162-eace-453c-bec1-ff5e0f2860e1.jpgShanghai_HS: The Inhibitory of COVID-19 Antibody Against the Mutant B.1.1.7 (2021) - Team Present...**Title:** The Inhibitory of COVID-19 Antibody Against the Mutant B.1.1.7 **Description:** COVID-19 is the pneumonia caused by SARS-CoV-2 using the S protein on the surface to combine with the ACE2 receptor. There are now more than 1.7 hundred million cases around the globe with approximately 388 million deaths. SARS-CoV-2 is RNA virus with high glycosylation of its S protein in which the mutation of S1 proteinand the RBD can arouse the infectivity of the virus to alter and even lead to immunologic escape. Known that the receptor ACE2 is highly conservative, the SARS-CoV-2 neutralizing antibody targeting ACE2 had already been proved the ability to restrict its replication inside or outside human body without affecting the activity of ACE2. Given above, our research on testing whether this antibody can effectively inhibit the outbreak of mutant strain B.1.1.7 is significant. [Wiki](https://2021.igem.org/Team:Shanghai_HS)https://static.igem.org/peertube/streaming-playlists/hls/dcadfac4-2cd5-45f2-a665-2a5fc541d592/4f3aa189-6d3d-4efc-97aa-ce0133558f3d-master.m3u8https://video.igem.org/videos/embed/tfwxvxCs3sg7My7stdGjP511760192021-10-26T11:01:46.117ZYES2021 Team PresentationsNOhttps://video.igem.org/w/nWjw7DGnYRmntE2rJxEmfmhttps://video.igem.org/lazy-static/thumbnails/e5e53731-48d6-4dd9-82f4-b72dbafa0c43.jpgNTNU-Trondheim: SulFind: A biosensor for sensitive hydrogen sulfide measurements... (2021) - Team...**Title:** SulFind: A biosensor for sensitive hydrogen sulfide measurements in recirculating aquaculture systems **Description:** With SulFind, we are addressing acute fish death caused by hydrogen sulfide (H2S) poisoning in recirculating aquaculture systems (RAS). Our goal is to design a biosensor that would satisfy industry standards as present technologies for H2S detection are often insufficiently sensitive for toxic H2S levels. Two biosensor systems were attempted, a whole-cell system and a system based on heme proteins. Our heme-based sensor exploits the protein's sulfide-binding capabilities. We use fluorescence intensity to evaluate the conformational change in fluorophore-tagged myoglobin protein bound to H2S. The sensing device will be embedded in a microfluidic chip, which will be compatible with existing methods for monitoring water quality in RAS facilities. As a result, our study seeks to reduce acute fish mortality in RAS facilities, making RAS more sustainable and economical. [Wiki](https://2021.igem.org/Team:NTNU-Trondheim)https://static.igem.org/peertube/streaming-playlists/hls/b1a57d02-1c8e-4b52-90a3-2e289965fbf0/e3229f2a-7942-419d-93de-5e2bf2f921a1-master.m3u8https://video.igem.org/videos/embed/nWjw7DGnYRmntE2rJxEmfm9270132021-10-26T11:18:09.988ZYES2021 Team PresentationsNOhttps://video.igem.org/w/rrBzBtA5Yq19TiS9KwANiThttps://video.igem.org/lazy-static/thumbnails/0ba68693-c4f2-4810-8d82-9ab587c63fb8.jpgNavarra_BG: A project to provide UV protection for plants on Mars (2021) - Team Presentation [Eng...**Title:** A project to provide UV protection for plants on Mars **Description:** A major factor limiting the expansion of human space exploration is the enormous logistical costs of launching and resupplying resources from Earth. Plants could play a critical role in providing food and precursors for manufacturing medicines and materials in long-duration missions to Mars. The absence of a significant ozone layer and low atmospheric pressure on Mars results in a higher surface flux of UV radiation. UV is potentially damaging to DNA, RNA, proteins, and generates oxidative stress. Therefore, it will be essential to engineering improved photoprotection mechanisms that enhance the performance of the light-harvesting machinery and UV-protection. This project aims to design strategies that endow plants with sunscreens that protect them from harmful UV effects in harsh planetary environments. The proposed solution is to construct a series of Biobricks with UVR8 and PAP1 Arabidopsis genes that allow GoldenBraid assembly of different transcriptional units to produce UV-resistant plants. [Wiki](https://2021.igem.org/Team:Navarra_BG)https://static.igem.org/peertube/streaming-playlists/hls/ce07fcc6-6a22-42a2-9a43-be6beed20195/b9dd6ebd-3584-4205-9c50-551dad438d10-master.m3u8https://video.igem.org/videos/embed/rrBzBtA5Yq19TiS9KwANiT11970602021-10-26T12:48:40.390ZMarsRadiationSpacePlantsNavarraYES2021 Team PresentationsNOhttps://video.igem.org/w/qM9JoK4FDZv7YYx5ZM98Wvhttps://video.igem.org/lazy-static/thumbnails/21d1f67a-0332-411b-bad2-cb4f999d5117.jpgNWU-CHINA-B: The transformation journey of ginsenosides (2021) - Team Presentation [English]**Title:** The transformation journey of ginsenosides **Description:** Ginseng is the main source of ginsenosides, but unfortunately, its growth cycle is very slow and it is susceptible to seasonal climate and other factors, its yield is limited.In order to overcome this problem, the SS-bgly gene derived from Sulfolobus solfataricus was highly expressed in pichia coli system after codon optimization, and the enzymatic reaction conditions of conversion of ginsenoside substrate Rb1 to CK from SS-bgly were explored.Under optimized enzymatic reaction conditions, the recombinant SS-bgly can transform ginsenoside Rb1 with higher substrate concentration into CK, which is conducive to the large-scale production of ginsenoside CK. [Wiki](https://2021.igem.org/Team:NWU-CHINA-B)https://static.igem.org/peertube/streaming-playlists/hls/c8a92d97-c570-49f2-a019-1b1ee4470c85/2cb47ba2-5a11-446a-92e0-32014353c762-master.m3u8https://video.igem.org/videos/embed/qM9JoK4FDZv7YYx5ZM98Wv12000232021-10-26T16:29:08.182ZYES2021 Team PresentationsNOhttps://video.igem.org/w/aQ2o3Pn1sLimGsqwYvE6Z5https://video.igem.org/lazy-static/thumbnails/4617840d-4740-4a9e-8f07-750a0a910267.jpgNorthern_BC: D-tector: an inexpensive, rapid vitamin D biosensor for northern co... (2021) - Team...**Title:** D-tector: an inexpensive, rapid vitamin D biosensor for northern communities **Description:** The synthesis of vitamin D primarily occurs in the skin upon exposure to UV light. In northern climates with fluctuating sunlight levels, vitamin D insufficiency (< 50 nmol/L) is common. In Canada, 33% of the population experiences insufficiency. Current testing methods in northern British Columbia, Canada, are expensive, time-consuming, and inaccessible. A benchtop vitamin D biosensor that can be implemented in local healthcare facilities would address this problem. Our biosensor will detect vitamin D (25(OH)D) in a blood serum sample. The biosensor is contained in E. coli, and consists of two components: (i) 1-alpha-hydroxylase, and (ii) a chimeric protein consisting of the ligand-binding domain (LBD) of vitamin D receptor and a FRET system (VDR-FRET). The 1-alpha-hydroxylase activates 25(OH)D to 1,25(OH)2D, which has high affinity for the VDR-LBD. Binding of 1,25(OH)2D to the VDR-FRET protein results in an altered fluorescent signal. [Wiki](https://2021.igem.org/Team:Northern_BC)https://static.igem.org/peertube/streaming-playlists/hls/4f96cca8-7fa4-4776-b7a6-0141e2d39fe2/ece40f81-0175-4a59-88d2-1716be9bd09b-master.m3u8https://video.igem.org/videos/embed/aQ2o3Pn1sLimGsqwYvE6Z511340162021-10-26T16:55:52.082ZYES2021 Team PresentationsNOhttps://video.igem.org/w/hSKEoWfYvs7ajAed7MA9Qthttps://video.igem.org/lazy-static/thumbnails/6fe5e6be-5f40-4be0-9120-4c23567f7c5b.jpgJiangnan_China: Save Coral Reefs at Risks: Synthesis of an eco-friendly bio-suns... (2021) - Team...**Title:** Save Coral Reefs at Risks: Synthesis of an eco-friendly bio-sunscreen by Saccharomyces cerevisiae. **Description:** Every year, about 14,000 tons of sunscreen are deposited into the ocean, producing a large amount of chemical pollution, especially oxybenzone and octyl-methoxycinnamate. This has greatly worsened the phenomenon of coral bleaching, and will further lead to the collapse of marine ecosystem, as coral reefs are home to 25% marine species. To alleviate the current situation, we are developing an eco-friendly bio-sunscreen that is harmless to coral reefs and the marine ecosystem. Inspired by how marine species in nature protect themselves from UV rays, we have decided to produce gadusol, a natural UV filter originated from zebrafish, as the main component of our bio-sunscreen product. We first introduced the synthetic pathway of gadusol into Saccharomyces cerevisiae. Then, the utilization pathway of xylose was also introduced to engineer it into a high-yield cell factory. By doing this, we hope to balance the use of sunscreen and the protection of coral reefs. [Wiki](https://2021.igem.org/Team:Jiangnan_China)https://static.igem.org/peertube/streaming-playlists/hls/88a85091-51f2-434c-9efe-c7564b81387b/8f7a8122-c05c-4c7d-abaa-7aadf4a68f37-master.m3u8https://video.igem.org/videos/embed/hSKEoWfYvs7ajAed7MA9Qt10620632021-10-26T18:01:37.280ZXyloseCoralReefsSunscreenYES2021 Team PresentationsNOhttps://video.igem.org/w/n6U2DUP4jJ9eq4mWiz3TMfhttps://video.igem.org/lazy-static/thumbnails/e6a3c2ef-a2a1-459a-9a40-9eddc362a004.jpgLund: Inhibiting curli formation via genetically engineered probiotics as a prev... (2021) - Team...**Title:** Inhibiting curli formation via genetically engineered probiotics as a preventative remedy against amyloidogenic neurodegenerative diseases **Description:** Amyloidogenic neurodegenerative diseases, such as Alzheimer s and Parkinson s, are expected to increase as life expectancy rises. Recent studies in rodents, correlated curli biofilms in the gut, and plaque buildup in the brain. To prevent neurodegenerative diseases, we aimed to express potential curli inhibitors via a probiotic chassi, Limosilactobacillus reuteri, and investigate the impact of the inhibitors in the presence of curli-producing bacteria. We applied gibson assembly and restriction enzyme cloning to attempt to insert our inhibitor genes into an L. reuteri expression vector. However, most likely due to our chosen selection marker, transformations were unsuccessful. During the last weeks, we successfully inserted one construct into pET11a, yet with an inconclusive expression assay. Our conclusion is that further studies of curli inhibition is required, preferably choosing a more suitable vector and chassi for expression. The connection between curli formation in the gut and amyloids in the brain also requires further investigation. [Wiki](https://2021.igem.org/Team:Lund)https://static.igem.org/peertube/streaming-playlists/hls/aae2b1c5-6ecf-4bfe-bb9e-e487bb1ee5ec/0c8a59ba-a231-413a-b839-f0a9c51b5951-master.m3u8https://video.igem.org/videos/embed/n6U2DUP4jJ9eq4mWiz3TMf10870472021-10-26T18:20:24.223ZProbioticsCurliNeurodegenerativeDiseasesAlzheimer'sParkinson'sYES2021 Team PresentationsNOhttps://video.igem.org/w/nXm7B8hbABKE2qwAdeh32Whttps://video.igem.org/lazy-static/thumbnails/92a29400-a192-4d9a-a31a-23536a6645e1.jpgShanghai_city: Based on the 5-HT theory to explore new solutions against depression (2021) - Team...**Title:** Based on the 5-HT theory to explore new solutions against depression **Description:** We decide to take two pathways to explore solutions for curing depression based on the 5-HT theory. On the one hand, we intend to construct in vitro RIN14B cells, which function similarly to EC cells responsible for the secretion of 95% of 5-HT in the human body. Electrophysiological experiments will be carried out on RIN14 cells to screen out compounds that could effectively stimulate RIN14B cells for the preparation of anti-depression drugs in the future. On the other hand, we also plan to recombine the Escherichia coli system, which could secret TPH and TDC enzyme to further exogenously synthesize 5-HT with tryptophan as the transformation substrate. This work is aiming to prepare engineered probiotics to ease depression. We hope to help patients who suffer from different levels of depression through this project. [Wiki](https://2021.igem.org/Team:Shanghai_city)https://static.igem.org/peertube/streaming-playlists/hls/b1ca36ff-6a1e-4e4a-afed-cb28d6c3ac08/c6eca0db-c1b6-42b0-b040-b464f0b03922-master.m3u8https://video.igem.org/videos/embed/nXm7B8hbABKE2qwAdeh32W8070302021-10-27T02:31:56.749ZYES2021 Team PresentationsNOhttps://video.igem.org/w/bVYwmNS6XjYeA2Vxe1pPwdhttps://video.igem.org/lazy-static/thumbnails/5d942402-2afb-4bab-be34-2ec27b19aa64.jpgShanghai_HS_United: FlavoneLabRouse: Engineered probiotics to degrade and absorb... (2021) - Team...**Title:** FlavoneLabRouse: Engineered probiotics to degrade and absorb flavonoids **Description:** Flavones are widely found in plants. They are pharmacodynamic compounds and have been widely used in the treatment of cancer and various diseases. Unfortunately, for some people, it s hard for them to digest certain kinds of flavones, which is detrimental to their health. In this project, we put FLR gene into E. coli to produce a strain secreting FLR enzyme. The strain degrades flavonoids to produce DAT and stimulate the immune system to achieve the purposes of anti-inflammatory, antibacterial and anti-cancer. Through this project, we hope to help those people assimilate certain flavones and improve their physical state. [Wiki](https://2021.igem.org/Team:Shanghai_HS_United)https://static.igem.org/peertube/streaming-playlists/hls/5884a3e4-c2b8-40b8-b3f0-b7cbeb583a6c/d1b45f11-6b66-4500-87c6-fd81d5ee01f2-master.m3u8https://video.igem.org/videos/embed/bVYwmNS6XjYeA2Vxe1pPwd10790122021-10-27T06:06:16.263ZYES2021 Team PresentationsNOhttps://video.igem.org/w/5v6DgLYZXVnXm3pjNHVY7Whttps://video.igem.org/lazy-static/thumbnails/291594e8-6b06-4771-927b-2d5d970889b8.jpgUM_Macau: BADY--Beer Antioxidation and Depurination Yeast (2021) - Team Presentation [English]**Title:** BADY--Beer Antioxidation and Depurination Yeast **Description:** Gout is a common rheumatic disease. Symptoms including swollen, red, hot, and stiff joints. The accumulated purine in beer is one of the reasons that cause gout after drinking beer. Low purine beer, therefore, can reduce the risk of beer drinkers suffering from gout. Meanwhile, oxidation in beer causes off-flavors and darkened color. Based on these problems, our team proposed to edit the yeast used in beer fermentation in order to produce a beer with low purine content and good antioxidant properties. We engineered the wild-type yeast by synthetic biology method such that the engineered yeast is able to produce and secrete three enzymes--purine nucleoside phosphorylase1 (PNP1), superoxide dismutase 1 (SOD1), and endochitinase (chit42). PNP1 can improve the utilization of purines, hence prevents purine accumulation in beer. The SOD1 and endochitinase will increase antioxidation in the final product. [Wiki](https://2021.igem.org/Team:UM_Macau)https://static.igem.org/peertube/streaming-playlists/hls/247499f2-a033-43f9-96c6-2b6926b5460a/6f29bd7f-6ef3-4b95-9295-a0d4989ac7f6-master.m3u8https://video.igem.org/videos/embed/5v6DgLYZXVnXm3pjNHVY7W10490262021-10-27T06:33:40.455ZBeerGoutPurineAntioxidantHealthYES2021 Team PresentationsNOhttps://video.igem.org/w/hyCCRY31zbKkZWBrEVdEidhttps://video.igem.org/lazy-static/thumbnails/9f90b21c-d588-4ed9-82ed-714574cfb68e.jpgLZU-HS-CHINA: NANO'S Eagerness(Nano-Se) (2021) - Team Presentation [English]**Title:** NANO'S Eagerness(Nano-Se) **Description:** Selenium is an essential element of human body. It plays a role to maintain body health, boost immunity, resist cancer, poisoning heavy metal and oxidation. However, Se is in deficiency in large areas, which has caused health problems among more than 1.1 billion people. The lack and the excess of this element both cause health problems. The existing preparation methods of Se are unstable and not safe enough. Thus, micro-biosynthesis of SeNPs, which is easy to absorb, is a way to use this mineral efficiently and safely. In our study, the new found selenite reductive SerV01 expressed in Staphylococcus aureus LZ-01 can convert Se (IV) to SeNPs, which has the potential to be used as a booster for the production of selenium supplements. [Wiki](https://2021.igem.org/Team:LZU-HS-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/862098be-66a8-4c27-8532-62d59739caee/abb3a3aa-a052-4503-bad4-910a38442c9f-master.m3u8https://video.igem.org/videos/embed/hyCCRY31zbKkZWBrEVdEid11470312021-10-27T06:37:26.957ZYES2021 Team PresentationsNOhttps://video.igem.org/w/vTGqVnNfRGFBMxd1JHSeCAhttps://video.igem.org/lazy-static/thumbnails/b63407e8-95cc-4081-bb99-6786f5d82d1f.jpgShanghai_high_school: Application of Escherichia coli and Bacillus subtilis in O... (2021) - Team...**Title:** Application of Escherichia coli and Bacillus subtilis in Oral Rotavirus Vaccine **Description:** A new oral vaccine against rotavirus can help children get antibodies against rotavirus in a needle-free way. It can enter the child's body in the form of oral liquid, capsule, drink, etc. The oral form can facilitate rotavirus patients' treatment and prevent children from developing resistance. In this project, the construction and characterization of the plasmids for oral rotavirus vaccine production were completed in order to prepare the target vaccine. Genes for the subunit of the heat-labile enterotoxin (LTB) from E. coli and the immunodominant outer core protein VP7 were cloned and expressed as a fusion protein. After being introduced into Bacillus subtilis, the plasmid could recognize rotavirus and express antigens LTB-VP7 successfully. This work here set the stage for the future development of the oral rotavirus vaccine [Wiki](https://2021.igem.org/Team:Shanghai_high_school)https://static.igem.org/peertube/streaming-playlists/hls/f210de7b-8eda-4df7-be21-0c41bee525be/be0a5c94-1a27-4c26-b0f4-9b645a744ba6-master.m3u8https://video.igem.org/videos/embed/vTGqVnNfRGFBMxd1JHSeCA11930152021-10-27T09:08:50.763ZYES2021 Team PresentationsNOhttps://video.igem.org/w/jMZ8duUFrzBAKnjW9ajFpBhttps://video.igem.org/lazy-static/thumbnails/a0fb0540-ea46-4bda-adea-728e72277dde.jpgNOFLS_YZ: IBD Distinguisher: Detecting IBD in a new way - Tetrathionate-Nitrate ... (2021) - Team...**Title:** IBD Distinguisher: Detecting IBD in a new way - Tetrathionate-Nitrate Test **Description:** During our survey on the way of detecting IBD, we found that there are several distinct defects of them: harm to the body, expensive, restricted to specific people. We are now hoping to find out a way that can make us easier to detect this kind of disease. Therefore, we are working on the development of a new diagnosis way called the Tetrathionate-Nitrate Test. We will construct an engineered probiotic which could be sent to the patient s stomach with the sugar-coated and detect the presence of these two kinds of chemicals: Tetrathionate and Nitrate, the marker of IBD. This will trigger the probiotics to produce fluorescent substances when detecting both makers. As a doctor, IBD could be diagnosed by checking if there is the fluorescent phenomenon in patients excrement which is fast, convenient, and precise. [Wiki](https://2021.igem.org/Team:NOFLS_YZ)https://static.igem.org/peertube/streaming-playlists/hls/98302b71-251f-4c91-8dcc-e7baa5ccd0b5/a4780a37-e293-4e28-afc3-d87ba57ef26b-master.m3u8https://video.igem.org/videos/embed/jMZ8duUFrzBAKnjW9ajFpB8090162021-10-27T09:19:26.262ZYES2021 Team PresentationsNOhttps://video.igem.org/w/ciT9U8Ean85mLCuBDCvZy4https://video.igem.org/lazy-static/thumbnails/025be2b2-3b33-46a2-9148-913cddcca65d.jpgThessaloniki: METIS: A toehold-based diagnostic tool for Pancreatic Ductal Adeno... (2021) - Team...**Title:** METIS: A toehold-based diagnostic tool for Pancreatic Ductal Adenocarcinoma **Description:** Pancreatic Ductal Adenocarcinoma (PDAC) is the most common type of pancreatic cancer and it is characterized by its devastating outcome, with only a 10% 5-year survival rate. As in other cancer types, it is considered that the earlier diagnosis could contribute to a more efficient treatment. However, the currently available diagnostic methods are unable to detect the tumor at an early stage. Thus, we are designing a toehold-based system to detect specific molecules, called miRNAs, that play an important role in the regulation of gene expression and cell cycle and are upregulated in the urine of patients in the first two stages of PDAC. We hope that this tool can be used by local diagnostic centers to provide a cost-effective, non-invasive and easily accessible diagnostic method. To further improve the impact of our method, we are, also, designing a device where the necessary reactions will take place. [Wiki](https://2021.igem.org/Team:Thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/5b93b19a-e954-4a46-922d-067adcdd1def/b63a8720-eada-4939-9931-f71acd6f2024-master.m3u8https://video.igem.org/videos/embed/ciT9U8Ean85mLCuBDCvZy49610482021-10-27T09:41:32.238ZCancerDiagnosticsYES2021 Team PresentationsNOhttps://video.igem.org/w/7Qeiuwc25W12DGyYvfj1mjhttps://video.igem.org/lazy-static/thumbnails/0cb1aa56-51b2-44d8-bac1-01c81efa2fde.jpgNEYCFLS_China: ANTI-Virus (2021) - Team Presentation [English]**Title:** ANTI-Virus **Description:** Since its emergence in December 2019, Covid-19 has become a global threat, infecting hundreds of millions, and affecting billions. To help lower the risk of being infected while outdoors, NEYCFLS_China introduces to you: Argentum Nanoparticle Tie-dyeing Indigo against Virus (ANTI-Virus). Inspired by the traditional Chinese methods of tie-dyeing, we will use E.Coli to produce indigo, modify the indigo with silver nanoparticles, and apply the modified dye to the most outer layer of surgical masks. The masks dyed with ANTI-Virus will prevent the viruses and bacteria in the air from adhering to the masks and kill those that somehow find a way to stay on masks, all when retaining the mask s electric discharge and polypropylene network. [Wiki](https://2021.igem.org/Team:NEYCFLS_China)https://static.igem.org/peertube/streaming-playlists/hls/3752baf5-a6db-4c72-8c60-b67cecbbe16a/955a21d5-796a-49f7-bc79-d8c967eaaa3e-master.m3u8https://video.igem.org/videos/embed/7Qeiuwc25W12DGyYvfj1mj11290152021-10-27T10:50:05.048ZYES2021 Team PresentationsNOhttps://video.igem.org/w/d1mVMJKqq7GMbCfmxbhZA9https://video.igem.org/lazy-static/thumbnails/c7a92ba6-97b9-47e4-b0ff-a35c87223f1f.jpgShanghai_Metropolis: EV71 oral vaccine against HFMD (2021) - Team Presentation [English]**Title:** EV71 oral vaccine against HFMD **Description:** Hand-foot-and-mouth disease (HFMD) is a contagious viral infection, mostly occurring in children under the age of five. The condition is caused by a series of enteroviruses, including EV71, and VP1 is one of its pathogenic subunits. Since many of the infected children may be afraid of traditional injection-based vaccines, we are trying to develop an EV71 oral vaccine that will gain higher compliance among infant patients. Using E. coli and L. casei as the expressive system, we express the plasmids we constructed, pGEX-6P-1-VP1 and pGEX-6P-1-VP1-LTB. We hope that our project will shed light on the possibility and practicability of the EV71 subunit oral vaccine and pave the way for a much safer, more convenient, and efficient oral vaccine for children to defend against HFMD. [Wiki](https://2021.igem.org/Team:Shanghai_Metropolis)https://static.igem.org/peertube/streaming-playlists/hls/613a8f95-f0ca-4466-8ec6-7f61bd6d8440/706b3d6b-df0a-4395-bfcc-386f22193510-master.m3u8https://video.igem.org/videos/embed/d1mVMJKqq7GMbCfmxbhZA912000222021-10-27T11:13:33.471ZYES2021 Team PresentationsNOhttps://video.igem.org/w/dgg1i2s48zEHfPXiPjbQ3Dhttps://video.igem.org/lazy-static/thumbnails/77a4766e-a448-44ce-81ea-42f16b0747b5.jpgBS_United_China: Quorum Sensing Disabler for fooD Decontamination (2021) - Team Presentation [Eng...**Title:** Quorum Sensing Disabler for fooD Decontamination **Description:** Food bacterial contamination impacts human health everyday. Food is easily colonized by pathogenic microorganisms, using quorum sensing (QS) to form biofilms on food surfaces, during production, processing, transportation, and serving. QS is the regulation of gene expression reacting to cell density and is used by both Gram positive and Gram negative bacteria to regulate various physiological functions. Our synthetic biology framework consists of two E.coli constructs, Part1(E.bsuahlscout), possessing LuxR to sense and combine AHL in the environment, which will be activated and initiate the expression of mcherry report gene, and Part2(E.bsuahlterminator), containing quorum quenching acylase pvdq fused with GFP to convert AHL into LHL, blocking QS signals. To improve LL-37 peptide generated by Jilin_China, we conjunct it to our Part 2, so P. aeruginosa are exposed to it and killed, and will live under a low-AHL environment. Thus, biofilms are not formed, and food decontamination is achieved. [Wiki](https://2021.igem.org/Team:BS_United_China)https://static.igem.org/peertube/streaming-playlists/hls/634f1152-a3b4-406c-9cec-23e8bff30b29/dfe419b1-ffd0-4132-965e-05302a281328-master.m3u8https://video.igem.org/videos/embed/dgg1i2s48zEHfPXiPjbQ3D10540392021-10-27T11:20:49.249ZFoodContaminationQuorumSensingAHLYES2021 Team PresentationsNOhttps://video.igem.org/w/iaA1LPotqY56owtcns6UCyhttps://video.igem.org/lazy-static/thumbnails/84075c9c-0551-4dff-93ac-71070f49c7ae.jpgShanghai_United_HS: A new engineering strain which could kill oral bacteria and ... (2021) - Team...**Title:** A new engineering strain which could kill oral bacteria and prevent dental caries **Description:** Dental caries, also known as tooth decay, have been one of the most usual diseases among people. It can directly disrupt oral health and even trigger the infection of other parts of the body. The main factor of Dental caries is the erosive organic acid created by bacteria on the surface of teeth metabolism. Chimeric Lysin ClyR is an enzyme originally produced by Bacteriophages that specifically attack bacteria that causes dental caries. Dr. Phage's mission is to create a kind of gene engineering E.coli strain that can enter the mouth and emit ClyR when induced of arabinoxylan. With this strain, people could avoid the further erosion from those oral harmful bacteria and achieve short-term protection, long-term prevention effect. [Wiki](https://2021.igem.org/Team:Shanghai_United_HS)https://static.igem.org/peertube/streaming-playlists/hls/8b02033a-0e2d-4c6a-95c0-ac649dd19e60/f91f8f2d-ee7f-498e-974c-efd5d8c8e41e-master.m3u8https://video.igem.org/videos/embed/iaA1LPotqY56owtcns6UCy10130162021-10-27T11:32:47.471ZYES2021 Team PresentationsNOhttps://video.igem.org/w/nqrDynTn2RwFYygyg3p1RLhttps://video.igem.org/lazy-static/thumbnails/61501cb5-2869-452b-901d-a4d09248f02a.jpgAalto-Helsinki: GutLux: shedding light on your gut (2021) - Team Presentation [English]**Title:** GutLux: shedding light on your gut **Description:** Certain associations have been established that link several metabolites associated with the gut microbiota to mental disorders, amongst other illnesses. However, reliable measurements of these compounds are a major drawback for a better understanding of the connection between the gut microbiota and the brain. GutLux, our ingestible biosensor, tackles this by measuring the concentration of the metabolites in vivo, inside the gut. GutLux is comprised of two parts. The biological component responds to the concentration of metabolite by producing a light signal that can be measured quantitatively. The electronic component measures this signal and converts it to readable, wirelessly transmittable data. Our design focuses on compounds associated with mental health, but its use could be extended to other gut metabolites by adapting the biological component. In addition, we have devoted ourselves to create awareness of the importance of the gut microbiota in our wellbeing and its impact on mental health. [Wiki](https://2021.igem.org/Team:Aalto-Helsinki)https://static.igem.org/peertube/streaming-playlists/hls/ad799176-0ce3-4b87-a556-a699d7afb4de/0b97021a-2c11-4719-9973-c5a8c17e5565-master.m3u8https://video.igem.org/videos/embed/nqrDynTn2RwFYygyg3p1RL11380372021-10-27T12:20:37.135ZGutBrainAxisGutMicrobiotaGutHealthMentalHealthBiosensorYES2021 Team PresentationsNOhttps://video.igem.org/w/muYHTLZnDWvdXDEAYP8ZWwhttps://video.igem.org/lazy-static/thumbnails/b65e03b8-d58c-4db1-b5c3-331cb01dfc48.jpgICJFLS: Disposable and Biodegradable Straw Made from Amylose Produced by E.coli (2021) - Team Pre...**Title:** Disposable and Biodegradable Straw Made from Amylose Produced by E.coli **Description:** In January 2021, the Chinese government started to enforce the ban on the use of disposable plastic straws in the food industry as they cause great harm to the environment. At present, paper straws are the most popular alternative to plastic straws. However, paper straws have many defects including bad taste, easy to crack and short lifetime. Amylose is a polysaccharide chain linked by a-(1,4) glycosidic bond with D-glucose. It has poor water solubility, anti-swelling and fat insolubility, which can be used in the production of food packaging materials. In our project, we introduced two enzymes involved in amylose synthesis into E. coli: ADP glucose pyrophosphorylase containing 2 subunits ADG1 and APL1, and granule-bound starch synthase 1 (GBSS1). Once our project is completed, amylose will be synthesized and used for the production of biodegradable straw. It will replace the plastic and paper straws with a broad prospect. [Wiki](https://2021.igem.org/Team:ICJFLS)https://static.igem.org/peertube/streaming-playlists/hls/a6028e1b-cab5-4049-bd4e-7ae96489a7e6/f3312ba3-62e6-4ad4-b710-1511919f56b8-master.m3u8https://video.igem.org/videos/embed/muYHTLZnDWvdXDEAYP8ZWw10690132021-10-27T13:53:13.453ZYES2021 Team PresentationsNOhttps://video.igem.org/w/wdYPVX7XLuyLYFNUp5v6Cxhttps://video.igem.org/lazy-static/thumbnails/4f796e95-22cb-4374-9230-ca7f45054f84.jpgKorea_HS: Designing a Cancer-Specific Cell-Penetrating Peptide for the Efficient... (2021) - Team...**Title:** Designing a Cancer-Specific Cell-Penetrating Peptide for the Efficient Delivery of siRNA into Cancer Cells **Description:** siRNA is a potent therapeutic agent because of its specificity and efficiency suppressing genes overexpressed during pathogenesis. However, due to lack of cell type-specific and safe delivery methods, it shows limited success in cancer treatment. Therefore, we aim to design CPP which forms a siRNA/CPP complex targeting neoplasia. Two engineered CPP based on buforin IIB - MV1 (-RLLR) and MV2 (-RLLRRLLR) - were tested. Among three types of CPPs, MV1 displayed highest specificity for A549 (cancerous). Next, our goal was to enhance the anticancer efficacy of doxorubicin (chemotherapy drug) mediated by MV1/siRNA complex. Since CYP1A1 is upregulated in doxorubicin-resistant cancer cells, siRNA was designed to target CYP1A1. Our result showed that MV1/siRNA complex efficiently suppressed CYP1A1 gene expression. Finally, MV1-DOX/siRNA complex increased anticancer efficacy of doxorubicin in A549, while showing minimal cell death on MRC5. Overall, results suggest MV1 could deliver antineoplastics and siRNA to improve anticancer efficacy. [Wiki](https://2021.igem.org/Team:Korea_HS)https://static.igem.org/peertube/streaming-playlists/hls/f4c21b04-cef6-4634-9c6f-61f35168f523/c42d0671-aa2d-4929-a521-463fa4f191db-master.m3u8https://video.igem.org/videos/embed/wdYPVX7XLuyLYFNUp5v6Cx11950362021-10-27T14:15:44.401ZHighSchoolRepublicOfKoreaCPP-BasedTherapeuticsBuforinIIbLungCancerYES2021 Team PresentationsNOhttps://video.igem.org/w/8WQrUUiEarNVYS1iuzgiK1https://video.igem.org/lazy-static/thumbnails/f779de07-135f-4de3-ab31-c3b992901f49.jpgGrad Apps Panel Discussion (Mentors Network)iGEMers, many of you have indicated interest in learning tips and tricks for graduate school applications in our Career Development Survey: <https://www.surveymonkey.com/r/MNCareerDev>. To address this need, the Mentors Network invited iGEMers who have recently (and successfully!) applied to either MS or Ph.D. programs (internationally) to share their experiences with you! Our featured panelists include: -Harkirat Singh Arora (PhD student at the University of Michigan) -Suhasini Iyer (MS student at Imperial College London) -Uttara Jayashankar (PhD student at Purdue University) -Zeeshan Siddiqui (MS student at Imperial College London) -Smriti Suresh (MS student at McGill University) We want to make sure we’ve served you! If you attended or watched this event, please take 1 min. to share your valuable feedback here: <https://www.surveymonkey.com/r/MN2FA>. Harkirat Singh Arora, Suhasini Iyer, Uttara Jayashankar, Zeeshan Siddiqui, Smriti Suresh, Nannan Jiang, Gourav Saha, Devin Camenares, Pedro Lovatt Garcia, Muhammad Marsad Siddique, Tim Ho, Erin Kim, Priyannth RS Baabu, Chris Kuffner, Shruti Sridhar, Varsha Jaisimha, Cibele Zolnier Sousa do Nascimento, and Dorothy Zhang. Grad Apps Panel Discussion. Hosted by the iGEM Mentors Network. October 24, 2021. https://static.igem.org/peertube/streaming-playlists/hls/4057fd96-70d6-4315-b900-c63c1ff5be4a/85f3b6c8-6648-4937-9e38-6e27b014508e-master.m3u8https://video.igem.org/videos/embed/8WQrUUiEarNVYS1iuzgiK178600692021-10-27T14:59:19.138ZEducation Graduate school Mentor Mentors Network MentorshipYESiGEM CommunityNOhttps://video.igem.org/w/9PWmEJ5vGD2uNiFPKLicuahttps://video.igem.org/lazy-static/thumbnails/acbb66ec-a70c-44da-a937-d9f0afbae738.jpgUTokyo: YEAST-AID (2021) - Team Presentation [English]**Title:** YEAST-AID **Description:** Incoming aging society asks us: 'How can we extend the healthy life expectancy?'. There are many obstacles to answering the question, one of which is bedsore. A bedsore is a severe wound that often occurs in people who spend a long time in bed. It requires continuous care by medical professionals and keeps patients away from home even after recovering from the initial symptoms. Our team suggests a solid solution to this problem by creating YEAST-AID for bedsore. This project aimed to help everyone takes care of bedsore correctly and efficiently, discharging millions of people from extended hospitalization. Our solution, YEAST-AID is a multifunctional wound dressing using synthetic yeast. The yeast has three functions supporting wound care: wound monitoring by oxygen concentration, infection prevention by antimicrobial peptides, and detection of P. aeruginosa infection. Furthermore, the yeast is appropriately integrated into the fiber-like hardware to function safely on the wound. [Wiki](https://2021.igem.org/Team:UTokyo)https://static.igem.org/peertube/streaming-playlists/hls/477a9093-bbad-4114-9a63-f251ad6d3875/651e82ce-8389-4e9a-8a20-dea06384cdd7-master.m3u8https://video.igem.org/videos/embed/9PWmEJ5vGD2uNiFPKLicua109401522021-10-27T15:00:30.650ZYeastAsiaJapanTherapeuticsYES2021 Team PresentationsNOhttps://video.igem.org/w/2JGuskKEEnXnF5XVgZrLh5https://video.igem.org/lazy-static/thumbnails/7d1ed758-a2e1-4ad6-939f-b64ea0724801.jpgBNUZ-China: E.Coli Keen Doctor (2021) - Team Presentation [English]**Title:** E.Coli Keen Doctor **Description:** Chronic kidney disease (CKD) is a major chronic disease with high incidence, poor prognosis and complicated complications, which has become a major public health problem endangering global public health. Indoxyl sulfate is the key urotoxin that promotes the progression of chronic kidney disease, and its precursor, Indole, is formed by tryptophan metabolized by the E.coil, then is metabolized by hepatocytes and eventually produce it. This year, we are committed to using engineered bacteria for special therapy in the following three ways: Firstly, we prevent our chassis metabolism from producing indole and enhance the competitive advantage of the chassis; Secondly, we use engineered bacteria to convert tryptophan into indole propionic acid, a substance conducive to enhancing intestinal mucosal barrier. In addition, we use engineered bacteria to promote the growth of other probiotics and improve the ecology of intestinal flora. Through the above ways, we believe that CKD will be well treated. [Wiki](https://2021.igem.org/Team:BNUZ-China)https://static.igem.org/peertube/streaming-playlists/hls/0e0f5488-c474-41aa-b716-e6fac3d7236c/d7c3515f-5d62-4cad-bbc2-459ea574d760-master.m3u8https://video.igem.org/videos/embed/2JGuskKEEnXnF5XVgZrLh511010392021-10-27T15:23:21.300ZCKDE.coliYES2021 Team PresentationsNOhttps://video.igem.org/w/34sVdRFRrPEzn4h6dnLF8Whttps://video.igem.org/lazy-static/thumbnails/d0b4239c-d66c-448f-be3f-a8fc578ef1a4.jpgUSTC: Tau-captamer the early diagnosis of Alzheimer disease (2021) - Team Presentation [English]**Title:** Tau-captamer the early diagnosis of Alzheimer disease **Description:** It's reported that Tau protein level in serum may indicate AD progress. Thus, we devised a new-concept in vitro Tau detection method for early AD diagnosis, depending on the specific binding between aptamers and Tau proteins. First, a molecular switch transfers the aptamer-protein binding signal to a downstream signal pathway. Second, the downstream signal pathway amplifies the signal exponentially to a detectable level. Our method has more convenience, lower cost and higher specificity and sensitivity. [Wiki](https://2021.igem.org/Team:USTC)https://static.igem.org/peertube/streaming-playlists/hls/10ae18e2-1286-48f4-931b-c9039ce66738/02f430d5-204a-44a1-bfbe-60f32aae64a9-master.m3u8https://video.igem.org/videos/embed/34sVdRFRrPEzn4h6dnLF8W11440632021-10-27T15:36:35.145ZTauDiagnosisRPAAlzheimer‘sDiseaseYES2021 Team PresentationsNOhttps://video.igem.org/w/vp48RSJaNVN6XKjsFoRLdzhttps://video.igem.org/lazy-static/thumbnails/5b9abb25-6c4e-4c6c-afb7-9fb20a1bf1d3.jpgNAWI-Graz: Phos4us: A novel biosensor system for quorum sensing mediated phospho... (2021) - Team...**Title:** Phos4us: A novel biosensor system for quorum sensing mediated phosphorus solubilisation **Description:** Phosphorus is an essential element for all living beings. It provides life not only for humans but is substantial for the growth of all plants on the planet. About 80% of the finite phosphate-containing rocks mined, is used in crop fertilizers and with the current rate of consumption the phosphorus sources might be depleted in less than a century. Our aim was to design a mediator organism that effectively regulates processes involved in phosphate solubilization and therefore increases the phosphate uptake efficiency of plants. We created the Phos4us system, which makes use of an already existent phosphate regulation pathway in Escherichia coli to react to high inorganic phosphate levels in the soil and produces the quorum sensing molecule 3OC6HSL. This signal allows the cell to actively communicate with neighboring microorganisms, which in return respond with growth and solubilization of the abundant phosphate. [Wiki](https://2021.igem.org/Team:NAWI-Graz)https://static.igem.org/peertube/streaming-playlists/hls/ee110f67-f25e-4c8a-b887-b465e35d05f1/5f4b9837-d0d5-4111-98e6-756c91b50871-master.m3u8https://video.igem.org/videos/embed/vp48RSJaNVN6XKjsFoRLdz10030202021-10-27T15:43:58.539ZEnvironmentBiosensorNatureAgriculturePhosphorusYES2021 Team PresentationsNOhttps://video.igem.org/w/mCyMqHzAMzLLMDbwagy943https://video.igem.org/lazy-static/thumbnails/61358028-8dca-400b-be25-020bbebb728c.jpgXJTU-China: Tryptophan iDream (2021) - Team Presentation [English]**Title:** Tryptophan iDream **Description:** In our project, in order to release the pain of people suffering from mental health problems like depression,anxiety and insomnia, we apply the methods of synthetic biology on the functional change of Escherichia coli. According to our ideas, a gene circuit based on Toogle-Switch is designed to reach the goal of switching between two statuses: tryptophan-producing and proliferating, by reacting to signals of IPTG and temperature. On top of that, considering the situation of COVID-19 pandemic and lockdown, we give our project further application by constructing a hardware to help people release their pain in their home by drinking a cup of milk with additional tryptophan in it. We believe this design will actually aid people in dealing with their mental health problems, especially during the pandemic, in a much safer and user-friendly way. [Wiki](https://2021.igem.org/Team:XJTU-China)https://static.igem.org/peertube/streaming-playlists/hls/a711c096-1c1e-4a4a-a0ca-840aa249d0e0/48c690d3-a5af-4f6c-8cc0-db2f79fc8504-master.m3u8https://video.igem.org/videos/embed/mCyMqHzAMzLLMDbwagy94311050362021-10-27T15:51:40.091ZTryptophanNutritionYES2021 Team PresentationsNOhttps://video.igem.org/w/dKSwQdfut9ZnwRGT9xpQYghttps://video.igem.org/lazy-static/thumbnails/c4e9c602-89d8-4ad9-9f74-cc99ad3475ed.jpgASTWS-China: Enhanced Plastic Eating Biofilm System (2021) - Team Presentation [English]**Title:** Enhanced Plastic Eating Biofilm System **Description:** The synthetic plastic waste accumulated in modern society has formed a large-scale garbage belt in water bodies, which has polluted the global ecosystem and caused serious harm to the health and survival safety of human beings, animals, and plants. Last year, ASTWS2020 successfully developed the 'biofilm system that can enrich and degrade plastic pollutants in water'. Based on this, this year, we aim to explore the further optimization and upgrading of this plastic pollutant treatment system by means of genetic engineering. The main optimization schemes include: 1) using a dual enzyme (PETase and MHETase) system to achieve more safe and efficient degradation of micro-plastics. 2) Objective to optimize the expression system of enhanced biofilm compound double enzyme and realize the optimal expression scheme of enhanced biofilm, PETase, and MHETase. [Wiki](https://2021.igem.org/Team:ASTWS-China)https://static.igem.org/peertube/streaming-playlists/hls/674dc987-207f-4ae4-b0ee-6131f2f7bac7/9fc62521-d9b6-4271-91f0-8c36ea9674fa-master.m3u8https://video.igem.org/videos/embed/dKSwQdfut9ZnwRGT9xpQYg11640382021-10-27T16:20:02.085ZBiofilmPlasticsPETPETaseMHETaseYES2021 Team PresentationsNOhttps://video.igem.org/w/aep2kneZ6ja3wRBq3YE78Hhttps://video.igem.org/lazy-static/thumbnails/d1c4b9b8-12e6-4f6f-a63c-7f6db3f6eb13.jpgNanjing-China: Polyp Neo (2021) - Team Presentation [English]**Title:** Polyp Neo **Description:** IBD inflammatory bowel disease are two serious, chronic digestive diseases that affect five million people worldwide. By means of Synthetic Biology, we hope to biosynthesize long-chain polyphosphate, which is biocompatible and promising to cure IBD. The aim of our project is to develop a new application of long-chain polyphosphate, including not only biosynthesizing it with high yield and under the concept of sustainable development, but also exploring its potential to be developed as a new IBD therapy. [Wiki](https://2021.igem.org/Team:Nanjing-China)https://static.igem.org/peertube/streaming-playlists/hls/4ac11af9-f7f1-4493-8f30-7517da466bc7/da54aa3f-d672-43d8-b823-e27a05c5a468-master.m3u8https://video.igem.org/videos/embed/aep2kneZ6ja3wRBq3YE78H11350432021-10-27T16:46:22.874ZYES2021 Team PresentationsNOhttps://video.igem.org/w/m1nuRGDw71K46vLVCM2d8Jhttps://video.igem.org/lazy-static/thumbnails/5a2ada5d-fd5b-40ad-9721-cd8bc0f55d8c.jpgWorldshaper-Shanghai: AD fruit fly: a new drug screening model for Alzheimer's d... (2021) - Team...**Title:** AD fruit fly: a new drug screening model for Alzheimer's disease **Description:** Alzheimer's disease (AD) is a neurodegenerative disease, and there is no effective drug to cure it now. It is urgent to establish an effective and rapid drug screening model for AD. This project is going to establish AD models using transgenic fruit flies (Drosophila melanogaster) carrying the UAS-APP transgene, which will express human APP protein in the fly nervous system by crossing to appl-Gal4 driver flies. These APP-expressing flies will produce AD-like symptoms, including Amyloid deposits, neuronal loss, axon degeneration, locomotor defect, and cognitive deficits, etc. Furthermore, some potential drugs will be selected to assess this fly AD model. We hope that one day Alzheimer's disease can be controlled and cured, and we are also working hard for this. [Wiki](https://2021.igem.org/Team:Worldshaper-Shanghai)https://static.igem.org/peertube/streaming-playlists/hls/a2040582-ac98-49b6-a2e3-4880ed29cc28/4f678385-f7b6-41ec-99b1-3c2e28a73e0a-master.m3u8https://video.igem.org/videos/embed/m1nuRGDw71K46vLVCM2d8J11750252021-10-27T16:58:35.018ZAlzheimer'sFruitflyDrugscreeningmodelAPPYES2021 Team PresentationsNOhttps://video.igem.org/w/8iQWVp7itJYYfPMj4XbipKhttps://video.igem.org/lazy-static/thumbnails/eed2bba2-26b0-4229-89f6-d5a81a8c0688.jpgTU_Darmstadt: PHIRE BYRD - Phage mediated Immune Response by Recognizing Defensi... (2021) - Team...**Title:** PHIRE BYRD - Phage mediated Immune Response by Recognizing Defensive Sleeper Cells. **Description:** Biofilm formation is an important characteristic of many bacteria, which enables them to survive under harsh conditions. Nowadays, biofilms are essential for a variety of industrial applications such as food fermentation or wastewater treatment. This year, our team is working on a self-defensive biofilm to protect it from pathogen invasion. We will biologically engineer our biofilm prototype chassis Bacillus subtilis to automatically sense pathogens threatening the biofilm via quorum sensing (QS) signalling molecules. The PHIRE BYRD gene circuit will trigger the production of lytic bacteriophages in presence of pathogens. The phages will then selectively kill the pathogenic bacteria while being completely harmless to humans, hence providing a powerful alternative to antibiotics. Finally, our complementary QS based kill-switch will protect our system from unintentional release of GMOs into the environment. By building on synthetic biology principles of modularity and standardization, our self-defensive biofilm system will be easily expandable to multiple pathogenic bacteria. [Wiki](https://2021.igem.org/Team:TU_Darmstadt)https://static.igem.org/peertube/streaming-playlists/hls/3b2dc781-1ac2-47d2-9379-56c5b917bda5/bb4c9eeb-3372-45b3-b3a6-677cf7073693-master.m3u8https://video.igem.org/videos/embed/8iQWVp7itJYYfPMj4XbipK102701002021-10-27T17:12:09.503ZB.SubtilisKillSwitchGeneticCircuitBiofilmPhageYES2021 Team PresentationsNOhttps://video.igem.org/w/32UnVqwdUEhVmcNvKe91FPhttps://video.igem.org/lazy-static/thumbnails/99acf95e-cc9f-45ca-9095-857e9886d024.jpgNNU-China: Construction of the BL21 (DE3)-derived variant strains library to rap... (2021) - Team...**Title:** Construction of the BL21 (DE3)-derived variant strains library to rapidly improve the antimicrobial peptides production **Description:** With the overuse of antibiotics, more and more antibiotic-resistant bacterial strains have emerged. Antimicrobial peptides (AMPs) are considered the promising alternatives to antibiotics. Escherichia coli is the extensively used host for the production of AMPs. However, the expression of AMPs genes is low due to the toxicity of the AMPs. In order to improve the production of various AMPs, the BL21 (DE3)-derived variant strains library with different RBS sequence of T7RNAP was constructed by base editor and CRISPR-Cas9, respectively. Excitingly, the CRISPR-Cas9 system enables to obtain 87.5% of the theoretical values variants in a single editing. Furthermore, the high throughput host screening platform for AMPs production was built, and it takes only 3 days to get the best expression host for certain AMPs production. As proof-of-concept, the production of ten hard-to-express AMPs were greatly improved. We aim to protect the human health and environment by reducing the abuse of antibiotics. [Wiki](https://2021.igem.org/Team:NNU-China)https://static.igem.org/peertube/streaming-playlists/hls/10764cd6-861d-4933-93c7-32d7e73a6535/3bda5507-a3f1-42f1-b530-4af297cf40a7-master.m3u8https://video.igem.org/videos/embed/32UnVqwdUEhVmcNvKe91FP11050332021-10-27T17:22:21.207ZYES2021 Team PresentationsNOhttps://video.igem.org/w/hyyMSqxijEUPxuBKxGTmYrhttps://video.igem.org/lazy-static/thumbnails/13200128-e518-4f97-b0dc-3d7f513a35b7.jpgConcordia-Montreal: Astroyeast Microfarm: Space-adapted nutrient and flavour fac... (2021) - Team...**Title:** Astroyeast Microfarm: Space-adapted nutrient and flavour factory **Description:** The AstroYeast Microfarm project comprises two major parts. These include AstroYeast, which is a strain of microgravity tolerant S. cerevisiae and a bioreactor that mitigates the effect of microgravity on liquid cultures. The overall goal of this project is to provide a platform for bioproduction using baker s yeast that can be used on long space missions. To develop the yeast, a fluorescent reporter whose expression mimics microgravity induced stress responses, and will be used as a marker for tracking evolution progress. The promoters selected are based on results from the AstroBio database, our team s project from last year. Microgravity stress was induced using microgravity simulators in the form of a high aspect rotating vessel and a 3D clinostat designed and built by our team and collaborators. The bioreactor will be designed to be automated, sustainable, and accessible to the operator in order to satisfy our objective. [Wiki](https://2021.igem.org/Team:Concordia-Montreal)https://static.igem.org/peertube/streaming-playlists/hls/861e3a2f-0298-4612-b156-619ae8642cb1/668352f5-db6d-4395-85b8-72fabf8837b6-master.m3u8https://video.igem.org/videos/embed/hyyMSqxijEUPxuBKxGTmYr11880262021-10-27T17:29:49.340ZYES2021 Team PresentationsNOhttps://video.igem.org/w/wHREx4igbChXX8sgJf62Pzhttps://video.igem.org/lazy-static/thumbnails/477760a6-e120-47c2-a323-6e47381ed95b.jpgThrace: Salica: A device for early screening of colorectal cancer using salivary... (2021) - Team...**Title:** Salica: A device for early screening of colorectal cancer using salivary biomarkers **Description:** Colorectal cancer has high incidence across the world and the 5-year survival rate for people with a localized stage colorectal cancer is 90%, but only one third of patients are diagnosed at such stage. This problem persists despite the existence of many screening solutions such as colonoscopy and stool based tests. Our proposed solution is Salica, a non invasive, easy to use home device, that accurately quantifies salivary colorectal cancer biomarkers such as specific strains of Fusobacterium nucleatum and microRNAs. Firstly, the biomarkers are isothermaly amplified using recombinase polymerase amplification and the produced nucleic acids are targeted by the cas12a enzyme. Upon target recognition a fluorescently labeled ssDNA probe is cleaved by cas12a resulting in a colorimetric output that is quantified by a 3d printed smartphone fluorimeter. In the future our system can be adapted to any improved biomarker just by changing only the RPA primers and the cas12a crRNA. [Wiki](https://2021.igem.org/Team:Thrace)https://static.igem.org/peertube/streaming-playlists/hls/f8ca42da-7e46-453d-8b2c-1df03b8be593/c3bda2b1-55d7-4917-9eed-0d12f416f9fc-master.m3u8https://video.igem.org/videos/embed/wHREx4igbChXX8sgJf62Pz9000562021-10-27T17:49:27.972ZYES2021 Team PresentationsNOhttps://video.igem.org/w/in3TzPZLuwHyWGWbNUxtNshttps://video.igem.org/lazy-static/thumbnails/67b904b1-d2e8-471c-ba08-c5cf17118546.jpgBNDS_China: Modified Metabolic Pathway for Rhamnolipids Synthesis using Directed... (2021) - Team...**Title:** Modified Metabolic Pathway for Rhamnolipids Synthesis using Directed Evolution and Protein Scaffold **Description:** Rhamnolipid, a widely used biosurfactant, is produced by Pseudomonas aeruginosa, but the overall production cannot fulfill the demand of industrial use. BNDS China 2021 aims to increase rhamnolipids production using directed evolution and protein scaffold. For the convenience of genetic engineering, rhlA, B, and C which are endogenous enzymes in P.a. are transformed into E. coli. With the EvolvR directed evolution system, random mutations can be added to the gene and variants with higher activity can be screened with a rhamnose induced promoter fused with antibiotic resistance genes and the rhamnolipidases that can hydrolyze rhamnolipid into rhamnose. Protein scaffold, which can fuse the separate enzymes into a complex, is also included in our design in order to reduce the shunt product and increase the yield. Two Mathematical models are designed to quantyitatively validate our biosensor for EvolvR system,and to increase the activity of the enzyme by point mutation. [Wiki](https://2021.igem.org/Team:BNDS_China)https://static.igem.org/peertube/streaming-playlists/hls/8c9bc1cc-62c9-4c83-a883-97260456a3aa/ffa7cd1f-c7ff-4420-b752-e3642b62b2e7-master.m3u8https://video.igem.org/videos/embed/in3TzPZLuwHyWGWbNUxtNs11740522021-10-27T18:33:18.319ZHighSchoolRhamnolipidsSustainabilityAsiaYES2021 Team PresentationsNOhttps://video.igem.org/w/fmcpkwXBtE1LGkNeAWF6qthttps://video.igem.org/lazy-static/thumbnails/356e3593-637b-4395-b906-f87946f8db10.jpgNAU-CHINA: High-efficiency selenium recovery bioreactor : E. coli (2021) - Team Presentation [Eng...**Title:** High-efficiency selenium recovery bioreactor : E. coli **Description:** Selenium nanoparticles (SeNPs) are a kind of elemental selenium wrapped in biological macromolecules such as proteins. Some microorganisms have the nutural ability to reduce selenium-oxide anions to SeNPs. However, they are not always perfect. There are problems such as low reduction efficiency and low activity due to large particle size of SeNPs. We chose E.coli BL21, which has the natural ability of reducing selenium oxide anions to SeNPs, as the chassis, added ssuE enzyme and Sef A protein which could improve the reduction rate. Finally, a high-efficient selenium recovery bioreactor with higher reduction rate and higher product activity was obtained. The SeNPs produced in the bioreactor has been used to inhibit drug-resistant bacteria, adsorb heavy metal ions and improve the quality of crops with satisfactory results. [Wiki](https://2021.igem.org/Team:NAU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/7431d7f5-b458-4787-8a07-dec59ab64b37/609df03a-a3e2-472c-a8c4-ee5b3416bc8d-master.m3u8https://video.igem.org/videos/embed/fmcpkwXBtE1LGkNeAWF6qt10290502021-10-27T19:40:44.852ZSyntheticBiologySeleniumNanoparticlesEnvironmentChinaYES2021 Team PresentationsNOhttps://video.igem.org/w/aUFGo6viqqMYtRsczUoTDahttps://video.igem.org/lazy-static/thumbnails/db01fb79-fed7-40ec-8872-a578cd3f760e.jpgWarwick: A fast detection method for carbapenemase-producing Enterobacteriaceae ... (2021) - Team...**Title:** A fast detection method for carbapenemase-producing Enterobacteriaceae (CPE) using CRISPR riboswitches **Description:** <i>Enterobacteriaceae</i> are a highly widespread family of bacteria, some of which are pathogenic. They are traditionally treated with antibiotics, but the antibiotic resistance crisis threatens to remove this option. Some <i>Enterobacteriaceae</i> have developed resistance to carbapenems, a 'last-resort' antibiotic for multi-drug resistant bacteria. Hence, containment is one of the most effective countermeasures against infections with carbapenemase-producing Enterobacteriaceae (CPE). However, current methods of testing for CPE are slow and can take up to 4 days for a negative result. Hospitals appear to be a reservoir for CPE particularly drains, sinks and faucets. To aid in containing the spread of CPE, we propose a novel detection method using a gRNA modified into a riboswitch, sensitive to the presence of a carbapenemase mRNA, coupled with a CRISPR activation system to produce a fluorescent green RNA aptamer. The resulting fluorescence can be viewed under UV light, making carbapenem resistant bacteria easy to identify. [Wiki](https://2021.igem.org/Team:Warwick)https://static.igem.org/peertube/streaming-playlists/hls/503d633c-cfcf-4386-8006-f11a4ffe03a7/81eefe3f-d83a-442a-9ece-7006bd90f4ce-master.m3u8https://video.igem.org/videos/embed/aUFGo6viqqMYtRsczUoTDa10270272021-10-27T20:06:36.860ZYES2021 Team PresentationsNOhttps://video.igem.org/w/4bJHY2PUuJBcCdVWEgZhDLhttps://video.igem.org/lazy-static/thumbnails/bafea972-d0c6-4333-a1bf-d867b3b710dc.jpgUSTC-Software: CAT : Convenient and Accurate Tool (2021) - Team Presentation [English]**Title:** CAT : Convenient and Accurate Tool **Description:** Nowadays, machine learning has been devoted to various areas, and has made some magnificent contribution in Synthetic biology, for example, Alphafold2 by Google, which can accurately predict the 3D structure by protein sequence, and some other models predicting the properties of protein sequence. But recently there is still lack of tools that is user-friendly and can integrate existing model and software. Thus, CAT, Convenient Accurate Tool, is designed and is based on the purpose of offering an highly-efficient software to our user. We ve collected some important properties of protein sequence. Moreover, we combine CAT with education and build up an education version in order to briefly introduce the models and the achievement that machine learning has done in synthetic biology. By the education version, we hope that CAT can motivate students interest and make further contribution in the area of synthetic biology and machine learning. [Wiki](https://2021.igem.org/Team:USTC-Software)https://static.igem.org/peertube/streaming-playlists/hls/19cb2ed9-67ee-4758-861e-547d33eadd66/9fd648fa-2e2a-4dcd-a6fe-0862657f67f1-master.m3u8https://video.igem.org/videos/embed/4bJHY2PUuJBcCdVWEgZhDL9410292021-10-27T20:27:14.435ZYES2021 Team PresentationsNOhttps://video.igem.org/w/rhdp6z5G6U5epEL7yG3xddhttps://video.igem.org/lazy-static/thumbnails/59374d2d-2a0b-462f-9631-b00a8e1c7574.jpgIstanbul_United: Ecolgae (E.coli & Algae) (2021) - Team Presentation [English]**Title:** Ecolgae (E.coli & Algae) **Description:** The issue of heavy metal pollution in aquatic systems is a very serious problem for both our future and present. This problem manifests itself in different ways all over the world. Although it affects the food chain and the life cycle negatively; the studies carried out until today, including methods where external intervention is mandatory, could only provide a temporary solution to the problem. We aim to reduce the percentage of heavy metals in water by using gene transfer methods and gene cloning, without disturbing the natural balance. This is possible by a system that will be added to the natural habitat. In this project, we studied how to use the bioremediator properties of algae without causing eutrophication. Based on this idea, we obtained transgenic E.coli which contains the heavy metal removal genes of algae. With our study, we as Istanbul United, can reduce heavy metal pollution permanently. [Wiki](https://2021.igem.org/Team:Istanbul_United)https://static.igem.org/peertube/streaming-playlists/hls/ccb801ea-a4f0-427e-b3b3-2f4c3230b070/16e0aca3-9f12-4e3d-ab43-1aaed29178ad-master.m3u8https://video.igem.org/videos/embed/rhdp6z5G6U5epEL7yG3xdd1060132021-10-27T20:33:49.945ZYES2021 Team PresentationsNOhttps://video.igem.org/w/wXK4oEh7CSMficWpwi6h1ahttps://video.igem.org/lazy-static/thumbnails/16c54b74-fa61-409a-9939-5b34a7724f74.jpgNantes: UlValorization (2021) - Team Presentation [English]**Title:** UlValorization **Description:** Our project aims to reduce, and maybe even solve, a local environmental, health, and economic issue: Ulva spp. Green tides in Brittany, caused by anthropogenic eutrophication. Eutrophication induces anoxic zones that enhance the proliferation of Sulfacto Reductor Bacterias (SRB). SRB uses Ulva algae to produce hydrogen sulfide, which is deadly for a wide variety of organisms, even in small concentrations. Consequently, the whole underwater ecosystem could be damaged. Using chemical, biochemical and biological tools, our team wants to accelerate and valorize the degradation of Ulva spp., by recycling the sulfate and finding utilization for the remaining biomass (biomethane extraction, bioplastic, and compost manufacture). As it is slowly becoming a global problem, we want to raise awareness of this phenomenon through meetings, games, and social media. Thanks to collaborations with several companies that made our project possible, we expect to encourage other countries to follow up and value their green tides. [Wiki](https://2021.igem.org/Team:Nantes)https://static.igem.org/peertube/streaming-playlists/hls/faba9a55-9832-45f2-a553-cd23982607a1/e2170ccf-b5b3-41ea-85b2-21d8b9217b79-master.m3u8https://video.igem.org/videos/embed/wXK4oEh7CSMficWpwi6h1a11220122021-10-27T21:08:46.056ZYES2021 Team PresentationsNOhttps://video.igem.org/w/n5gQw87xsHrJAPz89eUDPRhttps://video.igem.org/lazy-static/thumbnails/cd3dbcaa-02d7-4e39-8cac-7388ced916e4.jpgUppsala: Enhancing FGF-2 towards a more affordable growth medium for the product... (2021) - Team...**Title:** Enhancing FGF-2 towards a more affordable growth medium for the production of cultivated meat. **Description:** Cultivated meat is produced from animal cells grown in a bioreactor with enriching growth media to meet the growing demand for meat. This innovation in the food industry aims to solve some of the world s most pressing global crises such as mass animal slaughter, climate change, deforestation and emerging pandemics. Among all the essentials needed for the growth media, FGF2 or bFGF, basic fibroblast growth factor, is one of the most expensive. This is due to its unstable and short-acting characteristics but most importantly, its production cost. We aimed to improve a number of FGF2 properties that include binding affinity to its receptor, thermal stability and solubility. We designed three such mutants of wild-type FGF2, with each variant being successfully expressed and purified. Some of them were scaled up further. Our long-term goal is to be able to offer an improved growth factor to industry. [Wiki](https://2021.igem.org/Team:Uppsala)https://static.igem.org/peertube/streaming-playlists/hls/aaa8a584-9bbf-457d-ae79-a55a3c23613b/01ee5cff-00b5-4066-9cde-598b9285e693-master.m3u8https://video.igem.org/videos/embed/n5gQw87xsHrJAPz89eUDPR10490682021-10-27T22:54:02.262ZProteinEngineeringCultivatedMeatCellularAgricultureFgf2GrowthFactorYES2021 Team PresentationsNOhttps://video.igem.org/w/j74Vzp7RYazZzCU3bqEPQ5https://video.igem.org/lazy-static/thumbnails/dd669fad-797b-4e4b-a62a-5013675d4eb1.jpgUlink-SIP: Efficiently Producing 2 -Fucosyllactose In Escherichia coli (2021) - Team Presentation...**Title:** Efficiently Producing 2 -Fucosyllactose In Escherichia coli **Description:** 2 -fucosyllactose (2 -FL), one of the simplest but most abundant oligosaccharides in human milk, has many benefits for the healthy development of newborns. However, the high-cost production and limited availability restrict its widespread use in infant nutrition and further research on its potential functions. This year, Ulink-SIP aims at producing 2 -FL by engineered Escherichia coli. First, we co-expressed the genes for GDP-L-fucose biosynthesis and heterologous -1,2-fucosyltransferase in E.coli. Then, we deletion genes (wcaJ, nudD, and nudK) involved in the degradation of the precursors GDP-L-fucose and GDP-mannose to further boost the carbon flux from GDP-L-fucose toward 2 -FL synthesis. Finally, preliminary optimization of fermentation conditions was used to achieve a high yield. As a proof of concept, our preliminary 2 -FL production demonstrated a superior production performance. [Wiki](https://2021.igem.org/Team:Ulink-SIP)https://static.igem.org/peertube/streaming-playlists/hls/929d6067-7b2d-42b4-8066-358351d1b0b0/7b6ef9d6-5cd0-4683-9499-2dffd8ed4a80-master.m3u8https://video.igem.org/videos/embed/j74Vzp7RYazZzCU3bqEPQ56130102021-10-27T23:12:19.399ZYES2021 Team PresentationsNOhttps://video.igem.org/w/1iHu5hCpQbAEvZyxA9eoishttps://video.igem.org/lazy-static/thumbnails/062ca4cd-46c9-45c5-b11f-35339ed964ee.jpgLMSU: ASCEND (2021) - Team Presentation [English]**Title:** ASCEND **Description:** The question of food supply for the long-distance flights remains still unsolved. Moreover, onboard food production must meet restricted requirements due to the curtailed resources on the spacecraft. yanobacteria Arthrospira platens is a perfect candidate in this case. However, it is tasteless. A long-term ASCEND project is aimed to introduce Arthrospira platensis engineered to produce any genes of interest, and flavours in particular, as a new chassis for the synthetic biology community. We have designed and tested a special optogenetic system, which will facilitate switching between different products and help optimize growth and production conditions. Blue light induces anchoring of BcLOV4 protein in the plasma membrane and maintains culture growth, whereas far-red light induces the production of genes of interests by activating the BphP1 light-sensitive protein and forcing it to inactivate QPAS1-Gal4 repressor. This year genetic constructions were trialed in E.coli with YFP as a test gene. [Wiki](https://2021.igem.org/Team:LMSU)https://static.igem.org/peertube/streaming-playlists/hls/027935a3-fefa-40d1-8680-f99b39c60594/57106fae-a778-4450-8c18-0565ed59205f-master.m3u8https://video.igem.org/videos/embed/1iHu5hCpQbAEvZyxA9eois12000962021-10-28T00:07:52.692ZPhototrophChassisOptogeneticsArthrospiraSpaceYES2021 Team PresentationsNOhttps://video.igem.org/w/6VrwL8ajAos4BgX9GrEebRhttps://video.igem.org/lazy-static/thumbnails/3c6ab6b3-a077-4f90-bc19-d1d9b4af64fb.jpgULaval: aSAP: a Solution Against maple Polymers (2021) - Team Presentation [English]**Title:** aSAP: a Solution Against maple Polymers **Description:** Maple syrup is a Canadian emblem. It s a big part of our economy and culture. In 2021 alone, Canada produced 45M litres of maple syrup. Maple syrup is produced by boiling maple sap to make the sticky sweet syrup we Canadians know and love. Sometimes, contaminating microorganisms create exopolysaccharides in the syrup. These polymers are dextrans: very long sugar molecules that ruin the syrup s taste and texture, making it very viscous. When this occurs, it creates ropy maple syrup. This syrup cannot be sold, and so producers must pay for it to be destroyed, creating a waste of food, energy and money. We created a treatment using a designed dextranase to put into the barrels of ropy syrup to make it usable again for producers. Over the past two years, our team was able to express, purify, characterize and do the proof of concept of our dextranase. [Wiki](https://2021.igem.org/Team:ULaval)https://static.igem.org/peertube/streaming-playlists/hls/2ff3d8c4-bbef-4099-a4aa-6be23dfaa349/1ced5fc8-c4eb-475b-8b2e-178b7d8ecf0c-master.m3u8https://video.igem.org/videos/embed/6VrwL8ajAos4BgX9GrEebR11950442021-10-28T00:39:31.313ZMapleProductsRopySyrupDextranaseYES2021 Team PresentationsNOhttps://video.igem.org/w/mjVPwWCiH5XEEgWg6BsXZUhttps://video.igem.org/lazy-static/thumbnails/8c9875bd-4624-469f-a46b-51d1a6b5448f.jpgChalmers-Gothenburg: A tunable yeast cell factory for micro-scale production of ... (2021) - Team...**Title:** A tunable yeast cell factory for micro-scale production of fatty acid-derivates **Description:** Fatty acid-based compounds act as important building blocks in many industrial processes. Currently, many of these compounds are obtained through costly and energy inefficient chemical synthesis using base oils. Vegetable oils are promising alternatives, but many of these are drivers of deforestation and biodiversity loss. Finding alternative ways to produce the building blocks that make up the products we use every single day, is a key step in the development of a bio-based economy. We propose that Saccharomyces cerevisiae can be engineered for the production of high-value fatty acid-based compounds in a tunable fashion. We aim to fine-tune reaction pathways in vivo that can be difficult to carry out using conventional chemical synthesis. By downregulating the native fatty acid synthesis and introducing a bacterial system, we can regulate the production profiles using three types of thioesterases linked to different induction systems. [Wiki](https://2021.igem.org/Team:Chalmers-Gothenburg)https://static.igem.org/peertube/streaming-playlists/hls/a49b541a-a35d-4b4d-ad0b-80212252ccfa/40c9965c-a609-4148-a611-815ebf4d3fbd-master.m3u8https://video.igem.org/videos/embed/mjVPwWCiH5XEEgWg6BsXZU8410192021-10-28T00:50:11.850ZYeastFattyAcidsCellFactorySustainabilityTunabilityYES2021 Team PresentationsNOhttps://video.igem.org/w/sUd8oui6fKBJi5YLbizAgXhttps://video.igem.org/lazy-static/thumbnails/6b89a58b-1492-4f99-9365-21759d001526.jpgBrno_Czech_Republic: Phoscage (2021) - Team Presentation [English]**Title:** Phoscage **Description:** Our team created a system for phosphate removal from water. The system is based on modified Bacillus subtilis. This bacterium is designed to be able to measure the amount of phosphate in water. If the phosphate exceeds a certain threshold concentration, the bacterium will start to form a system to pick it up. This consists of an enzyme that will bind the phosphate into long chains (polyphosphate kinase) and protein vesicles (bacterial microcompartments, BMCs) that will enclose the phosphate chains. According to the design, these modified bacteria will be placed in water in a system that prevents their escape into the environment. After a period of time, the bacteria with the accumulated phosphates will be removed from the water, inactivated, and can be further utilized. We envision their use either as fertilizer or as a source of phoshporus for the chemical industry. [Wiki](https://2021.igem.org/Team:Brno_Czech_Republic)https://static.igem.org/peertube/streaming-playlists/hls/d9d7c145-0b96-4cad-8d72-9bbac765a4dd/b8bc89e5-5900-48dd-aa13-db7f9a637982-master.m3u8https://video.igem.org/videos/embed/sUd8oui6fKBJi5YLbizAgX12000842021-10-28T00:58:48.759ZPhosphatesCyanobacteriaB.SubtilisBMCsPhoPathwayYES2021 Team PresentationsNOhttps://video.igem.org/w/by7sawYPKRSWzVHjCcBgtBhttps://video.igem.org/lazy-static/thumbnails/ffadeebb-9729-4469-ba64-8bd156613626.jpgHong_Kong_JSS: AflaCut: A Innovative Apporach to Tackle Aflatoxin Contamination ... (2021) - Team...**Title:** AflaCut: A Innovative Apporach to Tackle Aflatoxin Contamination in Food **Description:** Aflatoxins are carcinogens produced by Aspergillus sp. Aflatoxin B1 (AFB1) is the most common and toxic member among all. According to WHO, ~25% of foods crops are contaminated by AFB annually. Meanwhile, ~5 billion people are at risk of AFB exposure and 80% of them develop AFB-related cancer. The Consumer Council of Hong Kong in 2020 shows that 24% of popular dried spices in HK contain AFB. Meanwhile, the humid weather in HK favors the growth of the fungi, so AFB contamination of improperly stored food is a common problem. Our project aims to synthesize a probiotic E. coli that secretes high activity AFB-degrading enzymes. The applications include: 1. Applying to the surface of crops. While the enzymes detoxify the AFB, E. coli reduces the fungal growth by competition. 2. Purified enzymes will be used as detoxifying spray. This project is in the Phase I stage. [Wiki](https://2021.igem.org/Team:Hong_Kong_JSS)https://static.igem.org/peertube/streaming-playlists/hls/557729b2-5a51-475b-ac9c-c271b4211f05/d8e5fe7d-11e4-4e4a-8dbf-5562b4533c8e-master.m3u8https://video.igem.org/videos/embed/by7sawYPKRSWzVHjCcBgtB11930512021-10-28T01:49:03.011ZAflatoxinAFB-1LaccaseFDR-ADetoxificationYES2021 Team PresentationsNOhttps://video.igem.org/w/38nPfED38WUacboaGGw79uhttps://video.igem.org/lazy-static/thumbnails/30457a02-82f9-44eb-b66a-3a022b9fc097.jpgQdai: Alternative to Canary (2021) - Team Presentation [Japanese]**Title:** Alternative to Canary **Description:** Using genetic recombination technology, we will create E. coli bacteria that can detect toxic gases. The E. coli will be used in an environment where human life is at risk, and the luminescence of the E. coli will alert the user in advance of danger. In addition, we plan to make the E. coli die by itself after reacting for a while, assuming that the person handling the E. coli runs away at once in a dangerous situation. This is to prevent the worst-case scenario of accidentally releasing the synthetic organism into the environment. By using synthetic biology, we hope to create a multifunctional E. coli bacterium that can protect the safety of people in dangerous situations. [Wiki](https://2021.igem.org/Team:Qdai)https://static.igem.org/peertube/streaming-playlists/hls/1139ed70-98b6-4b44-a240-6edad03b3834/7256cf9a-88ac-4d53-841d-9c6c6a844ddc-master.m3u8https://video.igem.org/videos/embed/38nPfED38WUacboaGGw79u810072021-10-28T02:40:09.554ZYES2021 Team PresentationsNOhttps://video.igem.org/w/rNg5oJKeNNN5xsBQvKb5qthttps://video.igem.org/lazy-static/thumbnails/011eea3c-bab8-41fe-b459-7825a6c43be2.jpgQdai: Alternative to Canary (2021) - Team Presentation [English]**Title:** Alternative to Canary **Description:** Using genetic recombination technology, we will create E. coli bacteria that can detect toxic gases. The E. coli will be used in an environment where human life is at risk, and the luminescence of the E. coli will alert the user in advance of danger. In addition, we plan to make the E. coli die by itself after reacting for a while, assuming that the person handling the E. coli runs away at once in a dangerous situation. This is to prevent the worst-case scenario of accidentally releasing the synthetic organism into the environment. By using synthetic biology, we hope to create a multifunctional E. coli bacterium that can protect the safety of people in dangerous situations. [Wiki](https://2021.igem.org/Team:Qdai)https://static.igem.org/peertube/streaming-playlists/hls/d0e9f87d-8088-42be-9e62-b0e3478fdffb/6d9c6246-e9c6-4a9d-bde3-6b9719296867-master.m3u8https://video.igem.org/videos/embed/rNg5oJKeNNN5xsBQvKb5qt8100192021-10-28T02:46:34.766ZYES2021 Team PresentationsNOhttps://video.igem.org/w/qgpfeq8tzRKPHubdgoxdHFhttps://video.igem.org/lazy-static/thumbnails/d77e3c2a-b360-429b-870f-117e40035ef5.jpgWashington: RhizoMet (2021) - Team Presentation [English]**Title:** RhizoMet **Description:** Although centuries of technological advances in manufacturing and industry have improved humanity s standard of living, they have often come at the expense of environmental well-being. The industry of mining, smelting, and refining heavy metals often leaves behind hazardous waste in the soil and air. Our project, RhizoMet, addresses these toxic levels of arsenic in soil through the use of bioremediation. As our proposed proof of concept, we plan to test the binding efficacy and specificity of our modified metallothionein proteins to arsenic. To accomplish this, metal tolerance and accumulation assays were performed on E.coli overexpressing these proteins. Given an effective model, we plan to incorporate these E.coli into the roots of Lomatium triternatum and other RhizoMet plants, remediating arsenic-polluted areas like those around metal smelteries. Through future iterations of our RhizoMet plant-E.coli system, we hope to expand the impact of this bioremediation method for areas like Northport and beyond. [Wiki](https://2021.igem.org/Team:Washington)https://static.igem.org/peertube/streaming-playlists/hls/c481cf52-bfde-4c40-812e-87ee4a3453b9/5b233d86-dc92-4eb1-b9e5-6aacd2e34a71-master.m3u8https://video.igem.org/videos/embed/qgpfeq8tzRKPHubdgoxdHF8480232021-10-28T03:01:30.002ZYES2021 Team PresentationsNOhttps://video.igem.org/w/bKrhpmnGhMKrmZsTubqWAphttps://video.igem.org/lazy-static/thumbnails/0b393f90-d9e3-40bf-a661-a5d6143f4eb4.jpgUNESP_Brazil: No title (2021) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2021.igem.org/Team:UNESP_Brazil)https://static.igem.org/peertube/streaming-playlists/hls/570bf325-8429-4c77-9ad8-d0860dc03e03/26542864-1772-423c-9ab0-243af6e390fe-master.m3u8https://video.igem.org/videos/embed/bKrhpmnGhMKrmZsTubqWAp9570252021-10-28T03:07:39.884ZAdaLovelaceDataStorageCRISPRE-wasteFluorophoreYES2021 Team PresentationsNOhttps://video.igem.org/w/ke6r1FFbGZXJJHcv8ejBmihttps://video.igem.org/lazy-static/thumbnails/827f423c-6ff9-4756-82bc-73dee538431f.jpgUSAFA: DeFluorine Machine: Biodegradation of Per- and Polyfluoroalkyl Substances... (2021) - Team...**Title:** DeFluorine Machine: Biodegradation of Per- and Polyfluoroalkyl Substances (PFAS) utilizing Delftia acidovorans Enzymes **Description:** Per- and polyfluoroalkyl substances (PFAS) persist in the environment and are associated with liver and kidney disease, altered immune function, lower birth weight, and cancer. More than 4,000 PFAS chemicals have been manufactured for industrial use. PFAS discharge seeps into ground water and bioaccumulates, resulting in unsafe human exposure. Responding to this urgent need, the US Air Force Academy iGEM team identified the aerobic bacterial species Delftia acidovorans from PFAS-contaminated soil with the potential ability to breakdown PFAS. Genetic sequencing of D. acidovorans revealed coding for 5 dehalogenase enzymes (DeHa 1-5). The dehalogenases genes were cloned individually into E. coli expression vectors. Assays of these purified enzymes revealed monodefluorination activity for DeHa 2 and 4. DeHa 1 and DeHa 5 show promising preliminary data and may prove capable of degrading perfluorooctanoic acid (PFOA). With further research and enzyme optimization, our enzymes could offer a powerful, inexpensive prospect for PFAS biodegradation. [Wiki](https://2021.igem.org/Team:USAFA)https://static.igem.org/peertube/streaming-playlists/hls/9bb1a692-3ee1-4988-889b-e57149712e45/58df4fd4-086b-4ee9-b493-760ed8b5fa44-master.m3u8https://video.igem.org/videos/embed/ke6r1FFbGZXJJHcv8ejBmi11980392021-10-28T03:18:41.210ZYES2021 Team PresentationsNOhttps://video.igem.org/w/4XCvoDzu6CEbvoL7hX9gWyhttps://video.igem.org/lazy-static/thumbnails/4a68e263-547f-4dc6-b420-f4e69d663b4d.jpgShanghai_HS_ID: Applications of CRISPR-Cas 9: Increasing the Expression Efficien... (2021) - Team...**Title:** Applications of CRISPR-Cas 9: Increasing the Expression Efficiency of Foreign DNA in Lactobacillus casei **Description:** Lactobacillus casei was found to have the potential to cure and prevent common health issues like high cholesterol, hypertension, and gastrointestinal diseases. Recent studies show that L. casei's capabilities in medicine and food are highly restricted by their low transformation efficiency of foreign DNA, due to its restriction-modification system. Our purpose is to improve the transformation efficiency of foreign DNA in L. casei to maximize their benefits. In the laboratory, we constructed a plasmid containing CRISPR-Cas9 in E.coli, then transformed the plasmid into L.casei so that the target gene LSEI-2094 can be removed and the restriction-modification system can be silenced. Lastly, we confirmed the results through both sequencing and controlled experiments to verify the efficiency before and after the modification. Results show that the transformation efficiency has significantly increased post-modification, it is hopeful that this modified L. casei could be applicable in pharmaceutical and food. [Wiki](https://2021.igem.org/Team:Shanghai_HS_ID)https://static.igem.org/peertube/streaming-playlists/hls/200fd247-7ab1-487a-b075-0d5e47483ea8/d0c2f12f-26f0-43b3-9660-0da457c1c6ac-master.m3u8https://video.igem.org/videos/embed/4XCvoDzu6CEbvoL7hX9gWy10780212021-10-28T03:27:57.304ZYES2021 Team PresentationsNOhttps://video.igem.org/w/3ZywouxSuRdmZ3we4ATyorhttps://video.igem.org/lazy-static/thumbnails/d8f9ab72-b24e-4e37-9145-f3f11c740333.jpgWorldshaper-Nanjing: Gutter oil purifier: turning waste into high value-added pr... (2021) - Team...**Title:** Gutter oil purifier: turning waste into high value-added products **Description:** Nowadays, gutter oil exists in the food industry at a very low cost, which threatens people's health. In order to solve the problems, we try to develop an efficient method to converge gutter oil into high value-added polyunsaturated fatty acids like linolenic acid. In this work, Yarrowia lipolytica has been selected as the model host to produce polyunsaturated fatty acids (linolenic acid) by using the waste oil in the kitchen waste as substrates. For this, we firstly enhance the ability of Y. lipolytica to utilize the waste oil by optimizing the fatty acid degradation pathway. Furthermore, the synthetic pathway of linolenic acid will be introduced into Y. lipolytica. The goal of this project is to make full use of the waste oil in the kitchen waste after simple treatment, so as to realize 'turning waste into treasure'. [Wiki](https://2021.igem.org/Team:Worldshaper-Nanjing)https://static.igem.org/peertube/streaming-playlists/hls/183bb73e-2cf2-4810-8fb1-84b4fb9ab4cd/d7b6afc2-55e0-4851-93be-3f29de983c56-master.m3u8https://video.igem.org/videos/embed/3ZywouxSuRdmZ3we4ATyor11080232021-10-28T03:45:18.939Z#GutterOil#FoodSafetyYES2021 Team PresentationsNOhttps://video.igem.org/w/sUJAd8L4VMnnsf4B1z7wVkhttps://video.igem.org/lazy-static/thumbnails/8ad0c863-f677-4ea9-83f9-9511c2b0bc59.jpgWrightState: De novo Synthesis of -Terpineol in Escherichia coli Utilizing a Dua... (2021) - Team...**Title:** De novo Synthesis of -Terpineol in Escherichia coli Utilizing a Dual Plasmid Model **Description:** There is a growing demand to reduce production of chemicals via traditional manufacturing. Industries that would benefit from biomanufacturing of compounds via microorganisms include pharmaceuticals, cosmetics/fragrances, and other commercial industries. One molecule with potential applications in these fields is the monoterpenoid -terpineol. -Terpineol has been shown to have many medicinal and insecticidal properties. Here, we focused on biomanufacturing -terpineol as a potential mosquito repellant. Specifically, we aimed to produce -terpineol via de novo synthesis in Escherichia coli cells utilizing an inducible dual plasmid system. The engineered strain was produced by transforming one plasmid which contained the upstream enzymes of the mevalonate (MEV) pathway and a second plasmid which was constructed to contain the enzymes geranyl pyrophosphate synthase (GPPS) and -terpineol synthase ( TS). These enzymes convert the end products of the MEV pathway to -terpineol. Preliminary results show that the system requires further optimization and troubleshooting to result in -terpineol production. [Wiki](https://2021.igem.org/Team:WrightState)https://static.igem.org/peertube/streaming-playlists/hls/d9ea8731-e4bd-4915-8c50-228897529a8d/be9be6ad-c205-4fc9-9d4c-4bff6c64d3ac-master.m3u8https://video.igem.org/videos/embed/sUJAd8L4VMnnsf4B1z7wVk11540142021-10-28T03:52:25.897ZWSUProducetoreduceYES2021 Team PresentationsNOhttps://video.igem.org/w/gEW7zc6bB3rFg56gjP9Q8Zhttps://video.igem.org/lazy-static/thumbnails/0bd14809-3abf-4cb8-9a0c-e59a0ca0f8ca.jpgMissouri_Miners: Salmonella Sleuth (2021) - Team Presentation [English]**Title:** Salmonella Sleuth **Description:** The objective of our bio-electric device is to detect Enterobacteriaceae, which are Gram negative, non spore forming, predominantly motile, facultative anaerobic bacilli. These bacteria communicate predominantly through quorum sensing, a biochemical process where signaling molecules turn genes on and off depending on density. By coupling this communication system with a fluorescent reporter and electronic components, we can improve upon pre-existing biosensors by increasing scalability and portability. Through the use of bioengineered E. coli cells that react to the presence of autoinducer-2, we produce a measurable fluorescent signal. The amount of fluorescence is then correlated to contamination using our dry-lab mechanical/electrical device: a cost-effective fluorometer built to test samples in common microcentrifuge tubes. Missouri_Miner s 2021 project blends the boundaries between synthetic biology and electronics, seeking to improve the viability of biosensors in food manufacturing. [Wiki](https://2021.igem.org/Team:Missouri_Miners)https://static.igem.org/peertube/streaming-playlists/hls/7ee8b111-9d0a-40bc-a2aa-39492524f53f/64c807c0-2a28-4c06-816a-7b89ffbcfe55-master.m3u8https://video.igem.org/videos/embed/gEW7zc6bB3rFg56gjP9Q8Z4740182021-10-28T04:01:57.603ZYES2021 Team PresentationsNOhttps://video.igem.org/w/cJntryE2htM1VDBDXGcm6Jhttps://video.igem.org/lazy-static/thumbnails/a66089ba-bc8b-4b3c-a722-4ec934804111.jpgiBowu-China: Glycyr : synthesis of glycyrrhetinic acid (2021) - Team Presentation [English]**Title:** Glycyr : synthesis of glycyrrhetinic acid **Description:** Glycyrrhetinic Acid (GA) is an important herbal extract from the most widely used Chinese herbal medicine Licorice with applications both in the food and pharmaceutical industries. It is an approved effective medicine for peptic ulcers and has expectorant properties, and current research reported potential use for anti-viral, anti-bacterial, and in cancer treatments. The conventional extraction method using hydrolysis of glycyrrhizin (GL) suffers from high cost and high environmental pressure, which undermines its large-scale usage. Syn-bio pathways can potentially lower the cost, and are eco-friendly. Therefore, Team iBowu-China investigated synthetic methods using the enzyme beta-glucuronidase (bG) to hydrolyze GL into GA by experimenting with the coding sequence from different species. Our results indicate the enzyme can be stably produced with a good hydrolysis activity under proper conditions. [Wiki](https://2021.igem.org/Team:iBowu-China)https://static.igem.org/peertube/streaming-playlists/hls/5efeff33-6492-4c52-8b4a-bd9565c4ad74/abb78c67-aa79-4894-b4b8-9d99312fea48-master.m3u8https://video.igem.org/videos/embed/cJntryE2htM1VDBDXGcm6J11980572021-10-28T04:06:05.247ZYES2021 Team PresentationsNOhttps://video.igem.org/w/hhQwwjQU1aBvtnNBMAHJX6https://video.igem.org/lazy-static/thumbnails/8e99c6b4-8311-471f-bc18-b6af1ab4a2c1.jpgUMaryland: PhosphoREUSE (2021) - Team Presentation [English]**Title:** PhosphoREUSE **Description:** Our neighboring Chesapeake Bay is frequently subjected to harmful algal blooms caused in part by excess phosphorus pollution. This type of pollution threatens aquatic habitats, biodiversity, and even the livelihoods of humans. However, current phosphorus remediation techniques do not prioritize reclamation and reuse of phosphorus, a nonrenewable resource. By genetically engineering E. coli to contain key phosphorus metabolic genes from the phosphorus-accumulating organism, Microlunatus phosphovorus, UMaryland iGEM set out to develop PhosphoREUSE, a phosphorus recycling system that can uptake, store, and release phosphorus. To facilitate easy use of our sequestration units, our genetic constructs are housed in a bioreactor system that is user-friendly and affordable. In order to ensure the efficacy of our design and its usefulness to our community, our team engaged with experts in the area and stakeholders who may want to utilize our system to detect and decrease unhealthy levels of polyphosphates in bodies of water. [Wiki](https://2021.igem.org/Team:UMaryland)https://static.igem.org/peertube/streaming-playlists/hls/83ec0635-16fe-4f32-96f7-8c017ddc3acb/c4a7e259-0b71-4217-b39a-2bd4770ee9f0-master.m3u8https://video.igem.org/videos/embed/hhQwwjQU1aBvtnNBMAHJX69700302021-10-28T04:22:19.921ZPhosphorusBioreactorModelingHumanPracticesMarylandYES2021 Team PresentationsNOhttps://video.igem.org/w/jgJPpx2GUfb5gQdhzYfy2rhttps://video.igem.org/lazy-static/thumbnails/3fc85ce1-3a75-46e0-8ff9-fc23d28404cd.jpgSCAU-China: MESEG (2021) - Team Presentation [English]**Title:** MESEG **Description:** Heavy metal pollution is very serious in water. Our team came up with the idea of a 'cruisable molecular magnet'. 'Molecular magnet' means it can capture heavy metal ions and store them in vacuoles. This can be achieved by expressing heavy metal binding proteins and autophagy-associated proteins in Chlamydomonas reinhardtii. And 'cruisable' means it can swim back and forth in sewage by our hardware device. This new device have an acrylic frame and cruise system, supplemented by sodium alginate embedding method and semipermeable membrane. On the one hand, it can cruise in the water by Beidou navigation satellite system (BDS) or remote control to capture heavy metal ions at different positions and facilitate recovery at the same time. On the other hand, it can prevent the leakage of genetically modified Chlamydomonas and provide a relatively stable and safe environment for Chlamydomonas. [Wiki](https://2021.igem.org/Team:SCAU-China)https://static.igem.org/peertube/streaming-playlists/hls/93f70a20-3155-46a2-bf4e-85aa1eb1d023/39f60020-146a-4d72-8027-a5afe6b72733-master.m3u8https://video.igem.org/videos/embed/jgJPpx2GUfb5gQdhzYfy2r11350472021-10-28T04:37:45.003ZYES2021 Team PresentationsNOhttps://video.igem.org/w/it5B1hdJyB4uYATENmNnnehttps://video.igem.org/lazy-static/thumbnails/8a25fcd8-d22a-40a8-9102-4b0e4ef31e85.jpgBolivia: ARSEMAPHORE (2021) - Team Presentation [English]**Title:** ARSEMAPHORE **Description:** Reliable access to potable water is a major problem in Bolivia and other nations. Scarcity of this essential resource drives populations to seek drinking water from rivers, lakes, and wells. However, these sources can be dangerous if they are contaminated by heavy metals. Preliminary studies show that drinking water in Bolivian cities often contains highly hazardous levels of arsenic. In response, we designed and constructed a bacterial biosensor to rapidly quantify water sample arsenic content. The biosensor design strategy is called traffic light; it employs 4 genetic constructs to quantify defined ppb ranges of arsenic content in water. Light color responses indicate lower metal concentrations while increasingly dark color responses correspond to increased arsenic content. We created a portable device that houses the biosensor and allows one to quantify water samples anywhere. Our goal is to make the biosensor available to users in Bolivia and eventually around the world. [Wiki](https://2021.igem.org/Team:Bolivia)https://static.igem.org/peertube/streaming-playlists/hls/8d7346aa-59b7-4079-91f3-8f86f04202f3/74f08e56-e7f3-4776-9d8a-62d98209d05f-master.m3u8https://video.igem.org/videos/embed/it5B1hdJyB4uYATENmNnne1200012892021-10-28T05:26:58.391ZArseniteArsemaphoreScienceCommunicationCulture&DiversityWastewaterYES2021 Team PresentationsNOhttps://video.igem.org/w/gvAj6w8BKog22bfZVXvFiThttps://video.igem.org/lazy-static/thumbnails/ae6bbf45-b171-48ff-b668-0a1043fe83f5.jpgToulouse_INSA-UPS: Elixio, a synthetic microbial consortium for sustainable viol... (2021) - Team...**Title:** Elixio, a synthetic microbial consortium for sustainable violet fragrances **Description:** Perfumes influence perception in our daily life. Behind flowers and chic clich s, perfume reality is not so glamorous as most are issued from non-sustainable processes. This is especially true for scents impossible to extract from the so-called mute flowers like the violet. Our Elixio project aims to demonstrate that valuable fragrances could be easily recreated using synthetic biology, even by a small team of students. We designed a synthetic consortium involving engineered cyanobacterium and yeast and allowing a sustainable production of the violet scent molecules from atmospheric CO2. Over the summer, we successfully engineered both strains to conditionally express all the enzymes necessary to recreate the violet fragrance. Moreover, we demonstrated the production of ionones by our yeast which actually smells like violet! The Elixio project has already drawn attention from the industry and we are definitely proud of the new openings created between iGEM and the world of perfume. [Wiki](https://2021.igem.org/Team:Toulouse_INSA-UPS)https://static.igem.org/peertube/streaming-playlists/hls/7d9acb74-3a9d-4215-9c4f-824989cebae1/5d279ae0-a418-455c-b6ef-1c8cfc6f2ec5-master.m3u8https://video.igem.org/videos/embed/gvAj6w8BKog22bfZVXvFiT1113023272021-10-28T05:45:32.636ZToulousePerfumeBiologySyntheticbiologyBiotechnologyYES2021 Team PresentationsNOhttps://video.igem.org/w/dykMHfHbpcBLANVH7HvM69https://video.igem.org/lazy-static/thumbnails/7e4aaa18-ce93-4763-9fc5-8ae99ca8a372.jpgSDSU: Engineering Methanococcus maripaludis for Methanol Biosynthesis, Wastewate... (2021) - Team...**Title:** Engineering Methanococcus maripaludis for Methanol Biosynthesis, Wastewater Treatment, and Desalination in a Bioelectrochemical System **Description:** Globally, close to 80% of wastewater receives no treatment and it is anticipated that 40% of people will lack access to clean water for drinking or irrigation by 2030. Additionally, given the effects of climate change on the planet, sustainable, carbon neutral fuels are essential to mitigate anthropogenic damage to the planet. SDSU's iGEM team addressed these issues using a three chamber Bioelectrochemical System(BES) inoculated with Shewanella oneidensis in the anode chamber and Methanococcus maripaludis in the cathode. The third chamber is used for water deionization by taking advantage of the BES cell voltage and permeable membranes. Although the BES desalinates, treats organics in wastewater, and creates a biofuel(CH4) from CO2 using the wild type organisms, reactive oxygen species(ROS) genes, protein folding chaperones, and a methane monooxygenase(MMO) were constructed to allow M. maripaludis to synthesize methanol from methane within the BES. [Wiki](https://2021.igem.org/Team:SDSU)https://static.igem.org/peertube/streaming-playlists/hls/65b1a8d0-1a40-4283-accf-5921b04ee716/b86a068b-d481-4bc8-ad7f-73413759f0fd-master.m3u8https://video.igem.org/videos/embed/dykMHfHbpcBLANVH7HvM691047092021-10-28T05:53:16.195ZYES2021 Team PresentationsNOhttps://video.igem.org/w/kxh99mCueoNEEqQ86Z1es7https://video.igem.org/lazy-static/thumbnails/b58dcd59-5085-4de3-9e04-f3d97d69466b.jpgRUM-UPRM: R-DetoX: A Biodegradation Solution for RDX Contamination in the Anones... (2021) - Team...**Title:** R-DetoX: A Biodegradation Solution for RDX Contamination in the Anones Lagoon in Vieques, Puerto Rico **Description:** The Anones Lagoon in Vieques, Puerto Rico, has been impacted by the presence of xenobiotic contaminants, whose concentrations exceed established limits by the EPA, with one of concern being a recalcitrant explosive compound, 1,3,5-Trinitro-1,3,5-triazine (RDX). Our goal is to design R-DetoX, a two-component genetic circuit for the detection and biodegradation of RDX. An RDX-inducible sensor element is transcriptionally coupled with the quorum-sensing (QS) signal biosynthesis and transcriptional regulator genes, luxI and luxR, respectively. The second component is induced by acyl-homoserine lactone (AHL)mediated QS, activating PluxR,, which initiates the transcription of the xplA/B system. As a result, denitrification and ring-cleavage of RDX occurs, reducing the compound s recalcitrance. A fluorescent reporter follows the catabolic component, allowing for quantification of biodegradation gene expression through fluorometry. The biodetection/biodegradation of RDX by R-DetoX will allow recovery of the biodiversity and provide new tools for environmental monitoring and remediation. [Wiki](https://2021.igem.org/Team:RUM-UPRM)https://static.igem.org/peertube/streaming-playlists/hls/9e3ba367-3a53-4ae3-b14d-f2dcfff0852e/0fcc9b95-8d32-4c7f-ada6-633aeebc422a-master.m3u8https://video.igem.org/videos/embed/kxh99mCueoNEEqQ86Z1es79970252021-10-28T05:58:28.554ZEnvironmentalLatinAmericaRDXYES2021 Team PresentationsNOhttps://video.igem.org/w/oargo97RNHZK3ZEJvChr2chttps://video.igem.org/lazy-static/thumbnails/1e8626d9-ef0f-4b47-b1d2-e4fa20dbac16.jpgSUNY_Oneonta: SNflaPs (2021) - Team Presentation [English]**Title:** SNflaPs **Description:** The 2021 SUNY Oneonta iGEM Team s project SNflaPs is an extension of Ca2LF, in which the goal was to develop a field deployable genetic testing system to detect the presence of the A2 allele of the beta casein (CSN2) gene. SNflaPs further explores the extent to which our method is effective in detecting single nucleotide polymorphisms (SNPs). Inspired by the needs of local farmers, the goal of this project is to demonstrate that a detection panel of SNP caused diseases is a feasible one. This is done by amplifying genomic DNA through recombinase polymerase amplification (RPA) and employing a 5 flap endonuclease (Flappase) that cleaves Holliday junctions created by designed oligonucleotides with flurophore tagged ends. [Wiki](https://2021.igem.org/Team:SUNY_Oneonta)https://static.igem.org/peertube/streaming-playlists/hls/b37a508f-1e01-4004-b4d2-d90ceee6bb29/4788e8f7-7d87-4c94-bf69-5c00915a2b58-master.m3u8https://video.igem.org/videos/embed/oargo97RNHZK3ZEJvChr2c10000282021-10-28T06:08:18.234ZYES2021 Team PresentationsNOhttps://video.igem.org/w/1MtYXWRWzmu64dPa5qAm4whttps://video.igem.org/lazy-static/thumbnails/9149da18-7a59-480f-82d7-282cebe016f2.jpgStony_Brook: MlrA Expression in E. coli to Break Down Microcystin from Cyanobact... (2021) - Team...**Title:** MlrA Expression in E. coli to Break Down Microcystin from Cyanobacterial Harmful Algal Blooms **Description:** Microcystin-LR (MC-LR), a toxin produced by cyanobacterial algal blooms, contaminates lakes and causes severe illness and death in humans and wildlife. Removing MC-LR with conventional techniques is costly and produces toxic byproducts. Therefore, we plan to use MlrA, an enzyme native to Sphingomonas spp., which linearizes the ring structure of MC-LR and reduces its toxicity. While previous works have expressed this enzyme in E. coli, we hope to achieve higher yields through two novel methods. The first anchors MlrA on the outer membrane of E. coli via a fusion protein with poly- -glutamate. The second secretes MlrA into the periplasm using TatExpress, a super-secreting strain, to increase the expression of transport membrane proteins. This project also proposes a microcystin detection method using a two-hybrid bacterial assay. Overall, employing these modified bacteria into a biofilter and detection system is a potential method for reducing microcystin toxicity in a safe, cost-effective way. [Wiki](https://2021.igem.org/Team:Stony_Brook)https://static.igem.org/peertube/streaming-playlists/hls/0659b6d9-d5f7-4c9b-a75f-c5e4a60064ac/c6f7ac23-aa04-4dfa-81cf-be1d08ec6c07-master.m3u8https://video.igem.org/videos/embed/1MtYXWRWzmu64dPa5qAm4w11720192021-10-28T06:11:10.923ZYES2021 Team PresentationsNOhttps://video.igem.org/w/6ctKBVkii2WFyi4c9xJUgHhttps://video.igem.org/lazy-static/thumbnails/b438e1d9-42d5-403a-a5b1-861f55541dd4.jpgMichiganState: A multi-tiered biocontainment strategy for the prevention of hori... (2021) - Team...**Title:** A multi-tiered biocontainment strategy for the prevention of horizontal gene transfer in transgenic microbes **Description:** To combat unwanted horizontal gene transfer in transgenic microbes, we are creating a multi-faceted biocontainment system designed to work in Escherichia coli. First, we use the GhoST toxin-antitoxin system to induce cell death in unintended recipients without the corresponding antitoxin. We are also designing a CRISPR-Cas9 based artificial immunity system to cleave conjugative plasmids that enter the host cell, preventing it from gaining conjugative machinery that would allow transfer of synthetic parts. In order to understand how our strategy would behave in a microbial community, we developed an assay to assess horizontal gene transfer from donor to recipient. We also use a Markov s model and an agent-based model (ABM) to imitate genetic transfer using biophysical and community-based methods, respectively. We hope this system could be used by future iGEM teams to enhance their biocontainment efforts and allow teams to move towards implementation in less controlled environments. [Wiki](https://2021.igem.org/Team:MichiganState)https://static.igem.org/peertube/streaming-playlists/hls/2a17fa42-dc31-4665-95da-46a7c783cc9f/4d0c758f-d451-4e77-9864-41ab86350464-master.m3u8https://video.igem.org/videos/embed/6ctKBVkii2WFyi4c9xJUgH11610152021-10-28T06:14:58.531ZFoundational-advanceBiocontainmentSafetySecurityHorizontalGeneTransferYES2021 Team PresentationsNOhttps://video.igem.org/w/9Zgjq8uy1P7hRGmnb913uChttps://video.igem.org/lazy-static/thumbnails/b56c169b-76be-4314-a2ca-c716879b41a9.jpgPuiChing_Macau: Turning food waste into biodegradable plastic (PLA) using engine... (2021) - Team...**Title:** Turning food waste into biodegradable plastic (PLA) using engineered E.coil **Description:** Pollutions from plastic and food waste are both pressing matters nowadays. In synthetic biology, researchers have been developing bacteria that decompose food waste and bacteria that produce bioplastic. In this project, in hope of turning food waste into bioplastics, we first engineered acid-tolerant E. coli which survive the acidic food fermentation process. Through overexpressing fabB gene, we demonstrated significant improvement in E. coli proliferation under acidic conditions. Next, we further engineered E. coli which produces bioplastics, Polylactic acid (PLA). We improved the bioplastic-producing constructs from previous researchers and iGEM team by 1) optimizing heterologous genes PhaC-PCT; 2) adding a Phasin gene to the construct. With IR spectroscopy, we proved that our E. coli can produce PLA. Using Nile red to quantify the PLA, we also demonstrated that our constructs can increase PLA production. In addition, we also built computational models and hardware to maximize PLA production from food waste. [Wiki](https://2021.igem.org/Team:PuiChing_Macau)https://static.igem.org/peertube/streaming-playlists/hls/48c7f1a5-1a54-4f4a-9ed5-e72b3526b8c4/5bed2304-8423-4d2a-bc7d-02416cafa60a-master.m3u8https://video.igem.org/videos/embed/9Zgjq8uy1P7hRGmnb913uC12000922021-10-28T06:38:56.764ZBioplasticFoodwasteMacauHighschoolYES2021 Team PresentationsNOhttps://video.igem.org/w/8T73RVwH3Kd3pwqLduWUEkhttps://video.igem.org/lazy-static/thumbnails/5e1a11b5-05a3-4f4f-be19-32d415a30d92.jpgXHD-Wuhan-A-China: Nitrate Decomposer: decrease nitrate in soil with rhizobium (2021) - Team Pres...**Title:** Nitrate Decomposer: decrease nitrate in soil with rhizobium **Description:** Soil compaction is a concrete manifestation of soil degradation. Acidification and salinization caused by excessive use of chemical fertilizer will damage soil structure and lead to soil hardening and compaction. Rhizobia is a type of bacteria widely found in roots soil. In our project, we aim to solve the soil salinization and acidification problem by using the denitrification effect of rhizobia to reduce the adverse consequences of soil hardening. Many rhizobia have the ability of denitrification by decomposing nitrates. We enhanced the denitrification ability of rhizobia by introducing plasmids containing nirK or napA genes, which code for key enzymes in denitrification. This new strain of rhizobium can not only fix nitrogen but also break it down to release the fixed nitrogen from the soil. Furthermore, we also studied the promoter that can sense nitrate concentration, which laid a foundation for the self-initiated denitrification of rhizobia under high nitrate concentration environment. [Wiki](https://2021.igem.org/Team:XHD-Wuhan-A-China)https://static.igem.org/peertube/streaming-playlists/hls/3fd2a183-d327-4946-af53-e068c4c7a4af/fceb9e30-b5a5-4e78-b7e3-4334b99cf020-master.m3u8https://video.igem.org/videos/embed/8T73RVwH3Kd3pwqLduWUEk12000162021-10-28T06:56:33.037ZSoilYES2021 Team PresentationsNOhttps://video.igem.org/w/bwhGeD5TZJ3YBghuVLZC9khttps://video.igem.org/lazy-static/thumbnails/0a98d02e-aded-4d31-ab88-b50d0fd0f6f7.jpgSZ_SHD: Alpha Gel (2021) - Team Presentation [English]**Title:** Alpha Gel **Description:** Our goal is to be able to produce a product that can safely degrade the keratin in hair while easily removing body hair, hence solving the problem of keratin waste disposal. We have found keratinases that can decompose the -keratin in human hair. By incorporating it into a bio-gel, we can produce a product the market has never seen before. We hope that our products can help everyone, and we hope that in the future, everyone can choose our products freely. Of course, we accept all kinds of beauty, hairless or not. As long as we like it, we should advocate social acceptance and respect the aesthetics of all people. In the future, we hope that this technology can be further applied in medical and industrial fields, such as treatment of skin keratinization diseases, treatment of poultry feathers in farms, leather pretreatment, hair treatment of household sewage pipes, etc. [Wiki](https://2021.igem.org/Team:SZ_SHD)https://static.igem.org/peertube/streaming-playlists/hls/5535fcd0-fece-4cbe-8080-197d50a98abb/f910f1f3-3daa-4a64-b649-84a388dd699c-master.m3u8https://video.igem.org/videos/embed/bwhGeD5TZJ3YBghuVLZC9k111804582021-10-28T07:00:38.707ZHairRemovalDepilatoryKeratinasesEnzymeActivityYES2021 Team PresentationsNOhttps://video.igem.org/w/it5rRCAsvBdQzVSmDXsRidhttps://video.igem.org/lazy-static/thumbnails/514d153b-0c05-4c5f-ac24-5ff709d69974.jpgAlma: Poisoned River (2021) - Team Presentation [English]**Title:** Poisoned River **Description:** The Pine River is found in central Michigan, near Alma College's campus. Following the closure of the Velsicol Chemical Plant in 1978, many environmental pollutants -- including DDT and its derivatives -- were improperly disposed of and leached into the surroundings, thus coining the name, the Poisoned River. These organochlorides are endocrine disruptors and possible carcinogens have wreaked havoc on the local ecosystem. More than this population were affected. Our solution: a biosensor that uses estrogen receptors to detect these harmful pollutants. Several species of animals have estrogen receptors known to bind DDT, a known xenoestrogen. Linking this to a reporting gene, such as RFP, within a microbe will allow the detection of organochlorides. This can lead to the screening of contaminated areas locally and globally. Ultimately, this biosensor has the potential to save thousands of dollars in not only our superfund sites, but pollution cleanup effort across the globe. [Wiki](https://2021.igem.org/Team:Alma)https://static.igem.org/peertube/streaming-playlists/hls/8d732dc7-696b-4d3a-8f47-f2284373a76a/48fcbef9-eb18-4955-a14c-44651d0a75a1-master.m3u8https://video.igem.org/videos/embed/it5rRCAsvBdQzVSmDXsRid10360142021-10-28T07:25:02.493ZYES2021 Team PresentationsNOhttps://video.igem.org/w/6jSSvn8PkaXRhaJNGdJ5qLhttps://video.igem.org/lazy-static/thumbnails/9c4b03c5-4968-4a60-a474-b64a38408047.jpgSJTang: Eco.H: Sustainable Energy via Photosynthetic Fermentation (2021) - Team Presentation [Eng...**Title:** Eco.H: Sustainable Energy via Photosynthetic Fermentation **Description:** Compared with traditional means, biohydrogen production is cost-effective and owns unique environmental advantages. Herein, SJTang modified E. coli and R. palustris, a purple non-sulfur bacterium notable for its hydrogen production ability. In both strains, photosynthetic biohybrid systems are introduced by interfacing iodine-doped hydrothermally carbonized carbon on the cell surface, facilitating photoelectron transduction. Moreover, oxygen-tolerant [NiFe]-hydrogenase is expressed heterologously to enhance versatility and efficiency. Genes encoding for biofilm and uptake hydrogenase in R. palustris were knocked out to maximize yield. Upon modification, the co-culture of E. coli and R. palustris demonstrated a mutualistic relationship in hydrogen production by exchanging essential carbon and nitrogen sources. A low-cost bioreactor capable of fermentation, gas collection, and quantitative component analysis is developed and packed into an integrated open-source solution. Through metabolic modification and hardware innovation, SJTang hopes further to improve hydrogen production efficiency and lower unit costs. [Wiki](https://2021.igem.org/Team:SJTang)https://static.igem.org/peertube/streaming-playlists/hls/2b206e70-6ed5-4f85-8870-6528cc6c8ffc/442c8ec6-bda7-4e8a-8185-92c3d2de9cd9-master.m3u8https://video.igem.org/videos/embed/6jSSvn8PkaXRhaJNGdJ5qL11550842021-10-28T07:30:04.418ZEnvironmentHydrogenProductionHardwareHighschoolYES2021 Team PresentationsNOhttps://video.igem.org/w/kW6s5HFMJK9Rf7RLUZDnkShttps://video.igem.org/lazy-static/thumbnails/e4c295cf-3bfa-4580-878b-0901fa3bc888.jpgWLC-Milwaukee: BlacOps (2021) - Team Presentation [English]**Title:** BlacOps **Description:** iGEM teams use synthetic biology to solve thousands of problems around the world. From diagnostic tests for cancer to biosensors that detect water contamination, using bacteria and their environment to influence gene expression is commonplace in synthetic biology. However, there are few resources available to those wanting to learn the foundation of all synthetic biology: gene regulation. Especially in urban settings like Milwaukee, a reliable gene regulation curriculum is absent. Furthermore, the concepts integral to understanding gene regulation are intricate, complex, and incredibly difficult to communicate. A reliable, hands-on educational kit simplifies the learning process tremendously. Using the well-documented and understood regulatory components of the lac operon, WLC-Milwaukee created BlacOps, a laboratory kit that effectively teaches the principles of gene regulation. [Wiki](https://2021.igem.org/Team:WLC-Milwaukee)https://static.igem.org/peertube/streaming-playlists/hls/a16b2817-2b58-4b3b-b8af-429f3255a8cc/6f62685b-2610-4bc8-8588-9dc18a8e9df9-master.m3u8https://video.igem.org/videos/embed/kW6s5HFMJK9Rf7RLUZDnkS11930132021-10-28T07:37:15.388ZGeneRegulationLacOperonLabKitLabManualWLCYES2021 Team PresentationsNOhttps://video.igem.org/w/bFDrD4LcU9TTEDHsKnAYfDhttps://video.igem.org/lazy-static/thumbnails/e81e8c0e-007c-45e4-b1b7-34765bfdbac7.jpgXJTLU-CHINA: Dr. Phage (2021) - Team Presentation [English]**Title:** Dr. Phage **Description:** In summary, our project aims to quantitatively detect the bacterial pathogens in food by using the edited assembly-deficient phage to target and lyse the bacteria, and then release the exogenous protein LuxR; the released LuxR can then activate downstream cell-free gene circuit and generate visual signals. The CRISPR-Cas9 system is applied to disrupt gp24 gene, an essential gene for T4 phage assembly, with LuxR gene to produce LuxR as signalling molecules for downstream system activation and prevent phage assembly at the same time. The assembly-deficient phage cannot therefore replicate in the host cells more than one generation. The downstream circuit outputs binary signals indicating whether the concentration of bacteria exceeds the national standard or not: if the concentration of the target bacteria is higher than the standard, the system will output a visual signal, otherwise, the signal will not be displayed. [Wiki](https://2021.igem.org/Team:XJTLU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/568477d6-5c5e-45ad-82c6-9846ebba46b1/9bf51e6d-b96c-477b-a7f5-537dbc516569-master.m3u8https://video.igem.org/videos/embed/bFDrD4LcU9TTEDHsKnAYfD109801092021-10-28T07:42:23.292ZPhageFoodborneDiseasesCell-FreeYES2021 Team PresentationsNOhttps://video.igem.org/w/1ZM8s66cs2ewujZH9wBcuDhttps://video.igem.org/lazy-static/thumbnails/59cfe684-5324-414e-8503-367904510a7c.jpgASU: Genetically engineering the microalgae Chlamydomonas reinhardtii to sequest... (2021) - Team...**Title:** Genetically engineering the microalgae Chlamydomonas reinhardtii to sequester arsenic from contaminated groundwater **Description:** Arsenic contamination in groundwater is a serious problem both in local Arizonan communities and abroad: prolonged exposure to arsenic contamination can cause cancer, vascular damage, and liver failure. This project aims to engineer the microalgae Chlamydomonas reinhardtii to sequester arsenic out of water. Metallothionein, arsenate reductase, and ferritin were integrated into the microalgae via the pASapI plasmid in varying permutations. The plasmid rescues function of the photosystem II gene, leveraging the ability to photosynthesize as a selective trait. Metallothionein and ferritin bind the two most common forms of arsenic: arsenite and arsenate, respectively. Arsenate reductase catalyzes the reduction of arsenate to arsenite, allowing for the ultimate sequestration of the toxic metal to occur in the chloroplast. Transformed algae were incubated with multiple concentrations of arsenic-contaminated media and the final concentration of arsenic after 2-3 days of exposure was measured using ICP-MS to quantify uptake efficacy. [Wiki](https://2021.igem.org/Team:ASU)https://static.igem.org/peertube/streaming-playlists/hls/081134ce-e83c-4279-816a-dfd789d35021/5d2451c6-cdb8-457f-b78c-ef8e18f6f7f1-master.m3u8https://video.igem.org/videos/embed/1ZM8s66cs2ewujZH9wBcuD112801002021-10-28T07:58:15.902ZEnvironmentalBioremediationAlgaePhototrophsCleanWaterYES2021 Team PresentationsNOhttps://video.igem.org/w/qabFeuW7vjqnrJqHKzbR18https://video.igem.org/lazy-static/thumbnails/fa1cc7ff-47f4-42ea-bd02-165c66250696.jpgRHS-Calgary: GlucoLitter: A colorimetric biosensor for detecting glucose in feli... (2021) - Team...**Title:** GlucoLitter: A colorimetric biosensor for detecting glucose in feline urine **Description:** The purpose of our project is to address the issue of effectively revealing signs of feline diabetes, as current solutions are often limited and time-consuming. Our primary goal was to produce a biosensor that creates a purple pigment in the presence of elevated levels of glucose which will act as an indication of feline diabetes. A reaction will occur between the glucose in a cat's urine and oxygen, catalyzed by glucose oxidase. This will produce hydrogen peroxide, which will react with a colorimetric assay to produce a color change. Through synthetic biology principles, we aim to apply our biosensor to provide cat owners with an early detection method for feline diabetes and other conditions. [Wiki](https://2021.igem.org/Team:RHS-Calgary)https://static.igem.org/peertube/streaming-playlists/hls/c3a399f2-29be-46e3-b425-addad8a7feab/3d26703b-8d1f-4bff-a721-421eb3176a14-master.m3u8https://video.igem.org/videos/embed/qabFeuW7vjqnrJqHKzbR1811290292021-10-28T08:22:48.666ZGlucoLitterScienceFelineCatFelineDiabetesYES2021 Team PresentationsNOhttps://video.igem.org/w/m27KiSVAj1esF5yvvk28UPhttps://video.igem.org/lazy-static/thumbnails/ff847dbd-a609-4006-b458-c71c9a3441a2.jpgNJU-China: Targeted therapy of asthma by self-assembled small interfering RNA in... (2021) - Team...**Title:** Targeted therapy of asthma by self-assembled small interfering RNA in vivo **Description:** Asthma is a chronic respiratory disease estimated to affect more than 339 million people worldwide. People suffering from asthma can only use different levels of ICS or ICS-LABA to prevent exacerbations and control symptoms. We focus on type 2 inflammation in bronchus, which is common but a key contributor to asthma. Our scheme is to take advantage of RNAi therapy to target TSLP and GATA3 to degrade their expression of mRNA and consequently improve asthma situations. During this process, we use a self-assembled siRNA delivery system where we enclose the siRNAs with exosomes to inhibit the above genes' translation and to subsequently prevent downstream toxicity and immunogenicity, which is superior to the otherwise exogenously pre-assembled systems. Meanwhile, we connected with our community through human practices to raise awareness of asthma. To ensure our sustainable impact, we held a regional meetup and founded an organization called the Nanjing iGEM Association (NIA). [Wiki](https://2021.igem.org/Team:NJU-China)https://static.igem.org/peertube/streaming-playlists/hls/a21eacbd-9168-4791-8589-5c2258bbfcab/e447b7be-f3d0-4c51-bda1-f581e269350f-master.m3u8https://video.igem.org/videos/embed/m27KiSVAj1esF5yvvk28UP9870232021-10-28T08:41:27.175ZNewApplicationRNAiAsthmaSelf-assembledSiRNATherapeuticYES2021 Team PresentationsNOhttps://video.igem.org/w/8UgsCvDRNUwB5bWfbS63J5https://video.igem.org/lazy-static/thumbnails/9cf6d610-8c98-4625-ba03-39d87f85d29f.jpgUFlorida: Mitigating Antibiotic Resistance Through Alternative Selectable Marker... (2021) - Team...**Title:** Mitigating Antibiotic Resistance Through Alternative Selectable Markers and a Conjugative CRISPR Delivery System **Description:** Antibiotic resistance is emerging as the center of a healthcare crisis worldwide. In order to mitigate the spread of antibiotic resistant bacteria, team UFlorida seeks to utilize metabolic enzymes in place of traditional antibiotic resistance markers when testing for transformants in the lab to further contribute to the ever growing synthetic biology library for better genetic engineering tools. UFlorida is also developing a two plasmid conjugation/CRISPR system that will deliver and induce the endonuclease activity of Cas9 protein to an antibiotic resistance gene in a bacteria. This will generate genome instability in our target host through a triad of double stranded DNA breaks, thereby killing the bacteria. We plan to utilize this system to target pathogenic, antibiotic resistant bacteria, and test our system with our novel selectable markers. [Wiki](https://2021.igem.org/Team:UFlorida)https://static.igem.org/peertube/streaming-playlists/hls/3ffc2c76-bea5-45b1-9774-cc4f26630878/ff6fb383-89e7-4775-930d-3bbc37f3452e-master.m3u8https://video.igem.org/videos/embed/8UgsCvDRNUwB5bWfbS63J59920202021-10-28T08:55:12.654ZYES2021 Team PresentationsNOhttps://video.igem.org/w/i1QnFDhXtqXADvwnc8RJLuhttps://video.igem.org/lazy-static/thumbnails/0d4e16e3-7c9a-4ed4-864b-adefe727dad1.jpgShanghaiTech_China: Mussel Inspired Biocompatible Osteogenic Material(MIBOM) (2021) - Team Presen...**Title:** Mussel Inspired Biocompatible Osteogenic Material(MIBOM) **Description:** This year, we decided to challenge the comminuted fractures and develop a new strategy for bone repair. We get inspiration from mussels, a creature that can adhere tightly to reefs through mussel protein in aqueous environment, and we designed a new biocompatible osteogenic glue. We designed adhesion, hydrogel, regulation and drug systems to make it a qualified osteogenic material. The adhesion system is based on mussel protein, which provides the adhesive ability in aqueous environment. The hydrogel system is designed to provide structural strength and UV-induced mechanism makes it friendly to clinicians. The regulation system is based on cells, we construct a Piezo1-based pathway to make cells sense the stress during the bone growth and secret enzymes to degrade the hydrogel, and then drugs mixed in the gel are released. We name it MIBOM, Mussel Inspired Biocompatible Osteogenic Material. [Wiki](https://2021.igem.org/Team:ShanghaiTech_China)https://static.igem.org/peertube/streaming-playlists/hls/89c92b2d-b598-4ac2-a246-1ce7c1749a34/b0545507-86c5-40fd-93b0-c08aa252cc55-master.m3u8https://video.igem.org/videos/embed/i1QnFDhXtqXADvwnc8RJLu118907142021-10-28T09:05:22.049ZHydrogelOsteogenicMaterialShanghaiTechPiezo1.1MusselYES2021 Team PresentationsNOhttps://video.igem.org/w/sQmRnexwfcCbSFH1mXV7pDhttps://video.igem.org/lazy-static/thumbnails/4338e324-caf8-4e76-bbd2-55698d4f5576.jpgNanjing_NFLS: Antibiotics Killer (2021) - Team Presentation [English]**Title:** Antibiotics Killer **Description:** Residual tetracyclic antibiotics in the environment is a real problem of ecological and human health relevance that has emerged in recent years, and there is an urgent need to develop efficient and convenient technologies for the efficient degradation of tetracyclic antibiotics (aureomycin). We found that microbial fuel cells (MFCs) can degrade aureomycin by Fenton reaction through modification of the cathode. At the same time, to improve the degradation rate, we aim to localize a biofilm to the cell anode as biofilm activity is closely related to the efficiency of microbial fuel cells. By overexpressing the quorum sensing system in the electricity-producing bacteria, we greatly improved the efficiency of the fuel cell and thus the degradation efficiency of aureomycin. [Wiki](https://2021.igem.org/Team:Nanjing_NFLS)https://static.igem.org/peertube/streaming-playlists/hls/d94e27f5-950e-4599-b2ad-5e7b81df9eeb/b4a3bb62-fb61-47dd-ab4c-6c23177d4a38-master.m3u8https://video.igem.org/videos/embed/sQmRnexwfcCbSFH1mXV7pD11900222021-10-28T09:08:57.062ZYES2021 Team PresentationsNOhttps://video.igem.org/w/oxRxDDYgAkF8uktTojGQtuhttps://video.igem.org/lazy-static/thumbnails/0faed6d4-3bc8-4379-8de0-38d27b1eac95.jpgIvyMaker-China: The PET-buster Magic Yeast (2021) - Team Presentation [English]**Title:** The PET-buster Magic Yeast **Description:** Our goal is to develop a whole-cell biocatalyst by displaying PETase and MHETase on the surface of yeast cell (Candida tropicalis) to degrade PET waste. Firstly, we chose a robust Candida tropicalis as the host and deleted the URA3 gene of genome to block the uracil synthesis by CRISPR-Cas9. In order to display the protein more efficiently, we must obtain the appropriate anchor protein. Therefore, we built a model to predict the anchor protein candidates. We used an enhanced green fluorescent protein (eGFP) as the reporter and inserted the codon-optimized GFP gene to the genome of Candida tropicalis by homologous recombination. Finally, we selected the best one from 89 anchor proteins, fused it with PETase, and then incubated the yeast with PET waste. We hope the yeast with surfaced PETase can degrade the PET more efficiently and achieved the recycling of PET waste. [Wiki](https://2021.igem.org/Team:IvyMaker-China)https://static.igem.org/peertube/streaming-playlists/hls/b69ba418-6adb-43d2-b1d7-450f3ada035a/faed0115-3c73-4e9c-83ba-2efaa86b3e69-master.m3u8https://video.igem.org/videos/embed/oxRxDDYgAkF8uktTojGQtu107101272021-10-28T09:27:04.493ZPETase，MHETase，PETDegradationYES2021 Team PresentationsNOhttps://video.igem.org/w/wH5ZqhY7uPfYgSSgkBGWAzhttps://video.igem.org/lazy-static/thumbnails/b2499d69-5802-47f7-aecb-e70f5cffa2ca.jpgFDR-HB_Peru: Chococadmium: Tackling cadmium contamination in the Peruvian cacao ... (2021) - Team...**Title:** Chococadmium: Tackling cadmium contamination in the Peruvian cacao industry **Description:** The Peruvian cacao industry has been heavily impacted by the new European Union regulations which placed a limit of 0.8mg/kg of cadmium (Cd) in cacao products due to the carcinogenic and toxic effects on organ systems. Only 5% of Peruvian cacao currently meets these requirements leading to over 50,000 Peruvian cacao farmers reporting income loss. Our team, in collaboration with Alianza Cacao (an organization representing Peruvian cacao farmers), is working on developing a Cd detection and bioremediation system to be implemented during the cacao liquor stage of production. This way, we hope to provide a system that will impede Cd from transferring to the final products of chocolate and cacao powder. [Wiki](https://2021.igem.org/Team:FDR-HB_Peru)https://static.igem.org/peertube/streaming-playlists/hls/f8aebac4-0e4b-43ac-a0a4-0ae85cd9aa7d/1f86d73c-958f-4b29-8041-97d9739846fc-master.m3u8https://video.igem.org/videos/embed/wH5ZqhY7uPfYgSSgkBGWAz7760382021-10-28T09:22:53.685Z#Cacao#ChococadmiumYES2021 Team PresentationsNOhttps://video.igem.org/w/sAZTcB93wwVj1gdfKMqnf8https://video.igem.org/lazy-static/thumbnails/09b283cd-7c0c-4791-9ea0-925c3bfde651.jpgNYCU-Taipei: Natto It Out (2021) - Team Presentation [English]**Title:** Natto It Out **Description:** A fatal cardiovascular disease, Deep Vein Thrombosis (DVT) is a rising major health problem due to the potentially lethal complications such as pulmonary embolism. Since an ounce of prevention is worth a pound of cure, our project Natto It Out aims to prevent DVT progression at its earliest onset via a fibrinolytic protease Nattokinase. In this project, we engineered an E. coli, which is designed to be able to release the NK in the intestine, by inserting the Nattokinase DNA sequence from B. subtilis into pET21a plasmids. In addition, we integrated the BphP1-QPAS1 optogenetic system to manipulate Nattokinase production remotely, along with a detector that could instantly calculate the risks of DVT. To overcome biosafety concerns, we adapted the mazEF toxin-antitoxin system into our kill switch design to mediate cell death once they have been released into the environment. [Wiki](https://2021.igem.org/Team:NYCU-Taipei)https://static.igem.org/peertube/streaming-playlists/hls/d770909a-8c4b-4277-aafa-1f0458f56d17/161d8484-ae9b-4c4f-bf83-c2036b0e5bfa-master.m3u8https://video.igem.org/videos/embed/sAZTcB93wwVj1gdfKMqnf8119201152021-10-28T09:31:01.185ZThrombosisNattokinaseDVTLBPTherapeuticYES2021 Team PresentationsNOhttps://video.igem.org/w/6NYyyJbX9Jo94JgmGkjupghttps://video.igem.org/lazy-static/thumbnails/d02caa7a-2105-49fd-98e1-06f8878afeb5.jpgUZurich: BOOM-V: engineered bacteria-originated (outer) membrane vesicles as a n... (2021) - Team...**Title:** BOOM-V: engineered bacteria-originated (outer) membrane vesicles as a novel plant protection strategy **Description:** Crop loss caused by phytopathogens is a severe threat to world food security. However, the extensive use of synthetic pesticides has led to toxicity and resistance emergence. Here, we propose an alternative solution to combat pathogens, by using bacterial membrane vesicles to boost plant immunity. We first screened for strains producing large amounts of highly immunogenic outer membrane vesicles (OMVs). By displaying immune elicitors on the surface of OMVs, the protective immune response can be further enhanced. Meanwhile, we also designed bacteria to function in situ, which can sense pathogens and automatically generate OMVs to prime plants. In addition to OMVs, bacterial cytoplasmic membrane vesicles (CMVs) are engineered to deliver cargoes (e.g., DNA) into plant cells. Our results show that engineered bacterial membrane vesicles can improve disease resistance, as well as other agronomic traits of plants, which might open the door for a new era of biopesticides and biostimulants. [Wiki](https://2021.igem.org/Team:UZurich)https://static.igem.org/peertube/streaming-playlists/hls/2f0cc392-7936-4f7b-b65b-557173d407b5/31941f82-c50f-4d7a-862f-7f6501beae1a-master.m3u8https://video.igem.org/videos/embed/6NYyyJbX9Jo94JgmGkjupg119801112021-10-28T09:36:12.248ZPlantGMOPesticidesOMVYES2021 Team PresentationsNOhttps://video.igem.org/w/dfonzFLSvpGqL1WC8kcT1Qhttps://video.igem.org/lazy-static/thumbnails/023767b7-22a3-4548-91b6-20df1df829e6.jpgPurdue: Argonaute Mediated Viral Point of Care Diagnostic Device (2021) - Team Presentation [Engl...**Title:** Argonaute Mediated Viral Point of Care Diagnostic Device **Description:** The COVID-19 pandemic has strained global diagnostic capacities and highlighted the limitations of conventional lab-based assays. Current on-site kits have false-negative rates as high as 33%. In an effort to provide accurate, non-invasive, affordable, and rapid Point of Care(POC) diagnostic tests for COVID-19 and other emerging pandemics, Purdue iGEM since the summer of 2020 has been working on cArgo: an Argonaute mediated microfluidic viral diagnostic device. cArgo extracts viral RNA from saliva for amplification and conversion into dsDNA. The TtAgo Argonaute protein then cleaves the dsDNA using viral strain-specific DNA guides producing ssDNA fragments. These fragments serve as secondary guides allowing the Argonaute to cleave the molecular beacon emitting a quantifiable fluorescent signal for conclusive result determination. Coupling the biologics with chip barcoding and app integration, we hope to revolutionize POC Diagnostics while making data more accessible for simultaneous detection and contact tracing. [Wiki](https://2021.igem.org/Team:Purdue)https://static.igem.org/peertube/streaming-playlists/hls/632fdd2e-2961-4aac-821f-60b4ca87ada4/8028f271-0f80-4680-9543-b16130d26c63-master.m3u8https://video.igem.org/videos/embed/dfonzFLSvpGqL1WC8kcT1Q9000132021-10-28T09:43:05.695ZDiagnosticCOVID-19ArgonautePoint-of-CareYES2021 Team PresentationsNOhttps://video.igem.org/w/iLe1QYkCPScUdwKoaKdVqJhttps://video.igem.org/lazy-static/thumbnails/6f78ae2c-e777-4bf2-8b90-d0d436663e24.jpgYonsei_Korea: Detection of rice blast fungus Magnaporthe oryzae using Cu2+ depen... (2021) - Team...**Title:** Detection of rice blast fungus Magnaporthe oryzae using Cu2+ dependent DNAzymes and gold nanoparticles **Description:** Rice blast, a fungal disease caused by Magnaporthe oryzae, is increasingly affecting rice plants leading to approximately 30% of rice production losses globally (Nailey 2016) and 15-60% annual incidents in Korea. The current treatment and diagnostic methods, however, are not environmentally friendly or are not easy to use for farmers. Therefore, we propose a DNAzyme based detection system to specifically detect the mif23 gene of M. oryzae. By Cu2+ catalyzation, our DNAzyme cleaves at the ends of the CTGC site of the target gene. We used PAGE and denaturing PAGE to validate the specific cleavage activity. We also confirmed that Cu2+ is significant in catalyzation, and that it is an efficient system in detecting the target gene. Lastly, gold nanoparticles functionalized with the complementary target DNA sequences to the cleaved DNA products were employed as a colorimetric approach to visualize the DNAzyme catalyzed cleavage reaction. [Wiki](https://2021.igem.org/Team:Yonsei_Korea)https://static.igem.org/peertube/streaming-playlists/hls/8fd81a85-e95a-471b-9d32-6d64abeaf73e/73bf6b4d-20fe-4558-90fb-577da0b78c94-master.m3u8https://video.igem.org/videos/embed/iLe1QYkCPScUdwKoaKdVqJ11190372021-10-28T09:49:38.467ZYES2021 Team PresentationsNOhttps://video.igem.org/w/ck33z3Xx17FHny6KuFkasMhttps://video.igem.org/lazy-static/thumbnails/e3c64b1a-f1cd-4ef4-bfe0-a9c87bf35791.jpgUIUC_Illinois: apPETite: Engineering the PET degrading enzyme with improved ther... (2021) - Team...**Title:** apPETite: Engineering the PET degrading enzyme with improved thermostability and degradation rate **Description:** Polyethylene terephthalate, or PET, is a plastic abundantly used in packaging and containers. Though PET is the most recycled plastic in the U.S., 3.1 million tons are produced annually and its current recycling rate is only 31%. Traditional remediation methods such as pelleting yield less products for every PET regeneration. Also, the microbial remediation with wild-type PET degrading enzymes (commonly called PETase) cannot be used under many current recycling conditions and has low degradation rates. To generate enzymes with higher degradation rates and thermostability, we developed machine learning algorithms to generate a number of candidate enzyme sequences. These candidate enzymes were then expressed and purified from E. coli BL21 and tested for the improved degradation of PET plastic using the NanoDrop method for validation. Project apPETite is an attempt to provide a framework for developing an enzyme with enhanced PET plastic degradation. [Wiki](https://2021.igem.org/Team:UIUC_Illinois)https://static.igem.org/peertube/streaming-playlists/hls/5bbceaaf-6c42-47d6-8773-29c581dd277d/fa21ed02-c484-47ba-b6ab-2befca2a5020-master.m3u8https://video.igem.org/videos/embed/ck33z3Xx17FHny6KuFkasM11990282021-10-28T09:53:00.863ZYES2021 Team PresentationsNOhttps://video.igem.org/w/69nthwd2t3v7a9SxtgGCxEhttps://video.igem.org/lazy-static/thumbnails/35189eb9-ffdf-4de1-95af-021f1f195193.jpgAboa: The Lac Case - Utilization of laccases for pharmaceutical waste detoxifica... (2021) - Team...**Title:** The Lac Case - Utilization of laccases for pharmaceutical waste detoxification **Description:** Pharmaceutical waste is one of the most deleterious pollutants in the Baltic Sea. Especially the non-steroidal anti-inflammatory drug diclofenac is causing severe harm to this delicate ecosystem. The current removal efficiency of diclofenac is only 27% at our local wastewater treatment plant. The project objective was to contribute to the development of a microbial wastewater treatment system for the detoxification of this compound. The approach was to overexpress and extract three heterologous laccases, specific enzymes which are capable of catalyzing the conversion of diclofenac into less harmful derivatives, in engineered E. coli. We were able to successfully produce and purify CotA (from B. subtilis) and CueO (from E. coli), of which CotA was shown to have catalytic activity in vitro. Implementation of this work would include the expression of this laccase in photosynthetic cyanobacteria in a closed bioreactor system, integrated as a part of the wastewater purification process. [Wiki](https://2021.igem.org/Team:Aboa)https://static.igem.org/peertube/streaming-playlists/hls/29a8e005-579a-4818-b910-a36af798a30c/f59680a6-07dc-4e54-bcce-fce9b7310699-master.m3u8https://video.igem.org/videos/embed/69nthwd2t3v7a9SxtgGCxE10380282021-10-28T10:14:38.537ZYES2021 Team PresentationsNOhttps://video.igem.org/w/w14WEi6naZqQ7RuK5a1CYkhttps://video.igem.org/lazy-static/thumbnails/db50729c-2acb-44f6-a2ca-aa203c81ded4.jpgSZPT-CHINA: Kissed by Light (2021) - Team Presentation [English]**Title:** Kissed by Light **Description:** Infection remains the most common cause of morbidity and mortality in burn patients. Pseudomonas aeruginosa is among the leading causes of nosocomial infection primarily because it is intrinsically resistant to many antibiotics and antimicrobials. This year our team is working on P.aeruginosa infection and wound repair in burn treatment. Using principles of synthetic biology, we genetically modified Gluconacetobacter hansenii ATCC 53582 to kill P. aeruginosa specifically through the production and release of chimeric bacteriocin SE protein and the immunity protein. Moreover, the production of cellulose in the engineered Gluconacetobacter hansenii ATCC 53582 was regulated by light, which can further prevent infection of other bacteria and promote wound repair. [Wiki](https://2021.igem.org/Team:SZPT-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/f2f496e2-ff26-44fb-9dd7-182a4f3001a3/25032083-09c5-47f3-8e39-e86b87093c81-master.m3u8https://video.igem.org/videos/embed/w14WEi6naZqQ7RuK5a1CYk110101492021-10-28T10:19:16.650ZYES2021 Team PresentationsNOhttps://video.igem.org/w/eQ995pk7symsVENuAeh6cBhttps://video.igem.org/lazy-static/thumbnails/4fcf84a6-45b1-4449-950a-fb3c01f668bd.jpgJilin_China: Mosquiet: A Environment Friendly And Quieter Biological Mosquitoes ... (2021) - Team...**Title:** Mosquiet: A Environment Friendly And Quieter Biological Mosquitoes Trapping System **Description:** Currently, more and more people suffer from mosquitoes and mosquito-borne disease. Although variety of methods have been developed to protect people from mosquitoes by using chemicals, they all have some defects such as slight toxicity, limited scope of action and so on. To solve this problem through biological method, a type of E.coli has been engineered to effectively attract mosquitoes in our project by releasing the three-gases-mixture ,including L-lactic acid, acetic acid and ammonia. Besides, the CRISPRi/dCas9 technique has been applied to regulate the use of carbon to increase the production of gas. Meanwhile, an acid-responsive dynamic control system and a quorum-sensing system has been added to ensure the normal growth of E. coli in a weakly acidic environment. In addition, sucrose-related suiciding system and carbon source utilization system have been introduced into the bacterium to ensure biosafety and meet the demand of household device. [Wiki](https://2021.igem.org/Team:Jilin_China)https://static.igem.org/peertube/streaming-playlists/hls/6fff84ff-8f04-4335-a7cf-d52b6887d1e5/6ca88c7c-f510-4f07-ad06-2d800fa015cf-master.m3u8https://video.igem.org/videos/embed/eQ995pk7symsVENuAeh6cB9880432021-10-28T11:04:34.511ZYES2021 Team PresentationsNOhttps://video.igem.org/w/aDtBcYvNYy551znQgM4dqUhttps://video.igem.org/lazy-static/thumbnails/4e54d2ba-528b-4ace-83aa-bf62a5bf09be.jpgSUSTech_Shenzhen: Development of gut microbes to prevent diarrhea-related dehydr... (2021) - Team...**Title:** Development of gut microbes to prevent diarrhea-related dehydration **Description:** Diarrhea is a major problem in third-world countries due to poor sanitation and limited access to clean water. Diarrhea in children (>5 years) accounts for approximately 11% of infection-related death. To address this problem, our objective is to develop engineered microbes that regulate water retention through colanic acid biosynthesis, triggered by dehydration cues including intestinal chloride concentration and pathogenic bacterium quorum sensing molecules (QSM). Pathogenic microbes release QSMs during severe dehydration, resulting in protective biofilm formation. We further include the triggered release of broad-spectrum antimicrobial peptides to displace the diarrhea-causing pathogens. As a case study, we selected Vibrio cholera as it is one of the major global causes of diarrhea. Due to the genetic circuit modularity, we can readily modify the quorum sensing module to target other pathogenic bacteria. The aim is to create broad-spectrum, cost-effective, readily accessible and convenient methods of diarrhea management. [Wiki](https://2021.igem.org/Team:SUSTech_Shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/4e1dc7e5-fb0d-4f76-ba01-0afe383e3b7c/3ebb514c-950d-4d32-be58-d9e3a0a7fc81-master.m3u8https://video.igem.org/videos/embed/aDtBcYvNYy551znQgM4dqU11990272021-10-28T11:04:44.679ZYES2021 Team PresentationsNOhttps://video.igem.org/w/5BtLpbGPjpcYbQPiEeM29ahttps://video.igem.org/lazy-static/thumbnails/7bd4b509-3cc5-4cb1-a7c0-52deca4293de.jpgThink_Edu_China: Debiotics (2021) - Team Presentation [English]**Title:** Debiotics **Description:** The increasing in antibiotics resistance slowly become a global concern. While, conventional methods to degrade antibiotics like high temperature composting, fermentation and microbial degradation had relatively low efficiency and high costs. More effective methods are urgently needed to cease this global issue. Our group had invest in the field and found out that the whole Cell Biocatalyst Ecn-IL, which is renowned for its practicability, strong stability and low-resources demand, can be a favorable solution to the mentioned issue. Firstly, the utilization of the Ecn-Il can effectively avoid the accumulation of the antibiotics in animals. Without the mountainous usages of antibiotics, the tolerability can be largely reduced, thus the formation of the super-bacteria can also be avoided. With the technology of cell surface display (EcN-IL), the Laccase gene lacc6 be displayed on the surface of Probiotic Escherichia coli, Nissle 1917 (EcN), can be used to degrade antibiotics residues. [Wiki](https://2021.igem.org/Team:Think_Edu_China)https://static.igem.org/peertube/streaming-playlists/hls/2558b29c-2533-4b21-8c70-17f2f2cf9b55/66589f27-e251-4501-b063-64b725082242-master.m3u8https://video.igem.org/videos/embed/5BtLpbGPjpcYbQPiEeM29a11770302021-10-28T11:08:43.521ZYES2021 Team PresentationsNOhttps://video.igem.org/w/qQFySsMeQ59Xxo6NJzi1vahttps://video.igem.org/lazy-static/thumbnails/6ae75c3c-748e-4c37-ac7b-18591e6d2e7f.jpgXHD-Wuhan-B-China: LCCD: Light Controlled Cell Division (2021) - Team Presentation [English]**Title:** LCCD: Light Controlled Cell Division **Description:** Bacterial population often display heterogeneity due to the fact that these individuals are always distributed in different stages of a life cycle, which is a problem for research or fermentation industry. In this project, we aim to block several fateful processes in E. coli cell cycle to prevent cell division, hence to create a uniformed population of synchronized individuals. To achieve this goal, we choose to combine the power of optogenetics, CRISPRi and RNAi. We use a two-component optical system of ccaR/ccaS to control CRISPRi and RNAi. Through light controlled CRISPRi and RNAi, we aim to target DnaA, FtsZ, MreB and oriC, to stop cell division under green light. If fully developed, our strategy can bring convenience to 3D genome research and fermentation process. Because light controlled gene interference is such a powerful tool, it has a promising future of treating human diseases. [Wiki](https://2021.igem.org/Team:XHD-Wuhan-B-China)https://static.igem.org/peertube/streaming-playlists/hls/c92769a4-18da-4680-b586-9a1bb8820a93/c57ff4e3-2ade-4211-834e-309e240b342f-master.m3u8https://video.igem.org/videos/embed/qQFySsMeQ59Xxo6NJzi1va11990282021-10-28T11:16:13.226ZLight-controlledCellDivisionMg1655YES2021 Team PresentationsNOhttps://video.igem.org/w/qKv8TzYsHSF3b74hYcmwGahttps://video.igem.org/lazy-static/thumbnails/aa72e274-8694-4a18-92c7-cf90ea4912dc.jpgTUDelft: AptaVita: A novel and modular aptamer-based rapid diagnostic test for v... (2021) - Team...**Title:** AptaVita: A novel and modular aptamer-based rapid diagnostic test for vitamin deficiencies **Description:** Hidden hunger, synonymous with micronutrient deficiencies, is estimated to impact the health and life-quality of one in three people, especially in sub-Saharan Africa and South Asia. Current monitoring policies are insufficient, as more data on hidden hunger is required to implement solutions effectively. However, existing detection techniques remain inaccessible for most people. Here, we present AptaVita: a modular, quantitative, and accessible paper-based rapid diagnostic test for vitamin deficiencies available at the point-of-care. Aptazymes (ligand-regulated self-cleaving ribozymes) engineered through in vitro evolution for binding the vitamins of interest are fused with the lacZ reporter gene. Vitamin-responsive translation activation is enabled in the PURE cell-free expression system on paper support. The colorimetric output is quantified by a portable, 3D-printed, dedicated hardware, allowing us to assess the level of targeted vitamins. We envision AptaVita making hidden hunger visible and addressable, thereby contributing to monitoring and tackling vitamin deficiencies together with those involved. [Wiki](https://2021.igem.org/Team:TUDelft)https://static.igem.org/peertube/streaming-playlists/hls/c86e4402-7849-4efa-96b8-e2857960d6a1/fdce9d3e-d380-405a-b753-bc0c9d327a05-master.m3u8https://video.igem.org/videos/embed/qKv8TzYsHSF3b74hYcmwGa117406992021-10-28T11:20:17.814ZAptazymesHiddenHungerBiosensorRapidDiagnosticTestVitaminDeficienciesYES2021 Team PresentationsNOhttps://video.igem.org/w/vNHsLqPogLmU3vzKPpBpLphttps://video.igem.org/lazy-static/thumbnails/51e5b40f-8c88-4a59-bf2f-1a7fc1ee40d9.jpgPittsburgh: Colon Detective: Tumor Diagnostics centered on Fimbrial Anchorage an... (2021) - Team...**Title:** Colon Detective: Tumor Diagnostics centered on Fimbrial Anchorage and Oxidative Stress Activation **Description:** Contributing factors to high mortality rates of Colorectal Cancers (CRC) in the United States are associated with the cost and inefficiencies with colonoscopies as the initial detection method. Here we propose the development of a detection system utilizing engineered E.coli cells to produce a color change in the presence of CRC tumors and adenocarcinomas. To colonize colorectal cells, we have proposed engineering E. coli cells with chimeric fimbrial cap protein that can be anchored to surfaces. Anchoring occurs via interaction with customized antigens using a SNAP tag. We then sense a hypoxic environment in cancer cells through the oxidative stress response transcription factor OxyR. To achieve this goal, we designed and built plasmids in which OxyR promoters regulate the transcription of the B-galactosidase lac-alpha fragment. Finally, the lac-alpha released forms a complex with lac-omega resulting in functional B-galactosidase that can be used in colorimetric assays reporting OxyR mediated transcription. [Wiki](https://2021.igem.org/Team:Pittsburgh)https://static.igem.org/peertube/streaming-playlists/hls/f15ec93e-42b0-4f9b-bb07-9415b029f8d3/03f27eef-8cf2-40cf-8e44-b7f74fe911ba-master.m3u8https://video.igem.org/videos/embed/vNHsLqPogLmU3vzKPpBpLp11300112021-10-28T11:46:40.527ZOxyRDiagnosticColonCancerFimHKingdomOfMicrobiotaYES2021 Team PresentationsNOhttps://video.igem.org/w/c6D2rbW9HbmY9FEKKR6uN5https://video.igem.org/lazy-static/thumbnails/d8ec7089-a13b-47d8-8ac8-d2c2c9fe810d.jpgEvry_Paris-Saclay: Evolution.T7 (2021) - Team Presentation [English]**Title:** Evolution.T7 **Description:** Every life form has emerged through evolution. Successive random mutations followed by selection of the fittest individuals has resulted in vastly complex and diverse living organisms. This process can be accelerated in the laboratory to create new protein variants with desirable properties by diversification of a known DNA sequence followed by selective amplification, an approach known as directed evolution. In vivo diversification with locus-specific targeting has recently become possible using T7-RNAP-guided deaminases. Here, aiming to maximize the effectiveness of this method, we have combined two strategies. First, we use new cytosine and adenosine deaminases with improved mutagenesis rates. Second, our innovative design can target both DNA strands simultaneously, resulting in improved diversification and reducing the bias observed in existing systems that mainly target only one of the strands of DNA in each mutation cycle. Finally, we validate the performance of our system by evolving enzymes, fluorescent proteins and transcription factors. [Wiki](https://2021.igem.org/Team:Evry_Paris-Saclay)https://static.igem.org/peertube/streaming-playlists/hls/59de0fb8-8ea2-44a6-a68e-4a9145fcd1d8/a9965e91-9432-4542-a1f9-4ccab331f00c-master.m3u8https://video.igem.org/videos/embed/c6D2rbW9HbmY9FEKKR6uN5111101832021-10-28T11:26:49.674ZFranceDirected_EvolutionFoundational_AdvanceYES2021 Team PresentationsNOhttps://video.igem.org/w/qmnmZQiFWq7pHEf33mLLiMhttps://video.igem.org/lazy-static/thumbnails/e5ed3b41-4dde-428a-96eb-5ac717d65d72.jpgCCU_Taiwan: AgenT Dressing, Mr. Superbug Assassin fight with MRSA (2021) - Team Presentation [Eng...**Title:** AgenT Dressing, Mr. Superbug Assassin fight with MRSA **Description:** Antibiotic-resistant bacteria, such as Methicillin-resistant Staphylococcus aureus (MRSA), are an emerging threat to global health and development. MRSA infects victims through open wounds and remains latent in macrophages. The infected MRSA is efficiently beat by the healthy immune system but causes bacteremia and endocarditis in patients with weak immunity. Here, we generate an antimicrobial dressing, namely AgenT, to prevent MRSA infection through open wounds on patients with weak immunity. AgenT Dressing is composed of an outer physical defense Polyurethane layer, an absorptive middle layer composed of alginate and chitosan, and an antimicrobial collagen layer with antimicrobial peptides and cell-penetrating peptides to target both intracellular and extracellular MRSA infections. We believe that AgenT will be a new treatment option to stop MRSA infections before it becomes worse. Fight MRSA with Mr. Superbug Assassin! [Wiki](https://2021.igem.org/Team:CCU_Taiwan)https://static.igem.org/peertube/streaming-playlists/hls/c5335e38-a5bc-4d56-bf64-6c5f9c067117/89716169-683e-4406-8e64-0c5fe2bbcafc-master.m3u8https://video.igem.org/videos/embed/qmnmZQiFWq7pHEf33mLLiM11850382021-10-28T11:32:08.086ZAgenTDressingSuperbugChronicWoundCareMRSAAntibioticResistanceYES2021 Team PresentationsNOhttps://video.igem.org/w/umEMHeiaYL2Zxr8NMZUF3ahttps://video.igem.org/lazy-static/thumbnails/38e20676-1236-4325-be17-c0075608bce4.jpgTAS_Taipei: UniversO: Enzymatic Blood Type Conversion to Eliminate Transfusion I... (2021) - Team...**Title:** UniversO: Enzymatic Blood Type Conversion to Eliminate Transfusion Incompatibility **Description:** Blood transfusions are an integral component of healthcare, but the availability of blood is limited by patient-donor blood type specificity. This leads to blood shortages worldwide, especially in developing countries and during times of pandemics or natural disasters, including the COVID-19 pandemic. To alleviate the blood shortage issue, this project aims to increase the supply of universal donor blood through the enzymatic conversion of A, B, and AB blood types to O type, eliminating patient donor incompatibility. We have identified 3 glycoside hydrolases that act as molecular scissors to cleave off terminal residues on A and B RBC surface antigens, preventing cells from eliciting an immune response. We propose a modular, two step blood conversion kit housing our recombinant enzymes that can be implemented into blood banks and processing centers, increasing access to universal donor blood for all. [Wiki](https://2021.igem.org/Team:TAS_Taipei)https://static.igem.org/peertube/streaming-playlists/hls/e5a2a972-b934-4ad2-b246-a201be6dfac9/a5a70e1c-c76b-4a56-8939-ba6c46f5450e-master.m3u8https://video.igem.org/videos/embed/umEMHeiaYL2Zxr8NMZUF3a109302942021-10-28T11:36:33.308ZRedBloodCellUniversalBloodUniversOBloodShortageBloodTypeConversionYES2021 Team PresentationsNOhttps://video.igem.org/w/gwMCd89ZLLkXaBRdWUWgazhttps://video.igem.org/lazy-static/thumbnails/c6f7994b-886a-4a8d-bc95-6f9c7b6a5e64.jpgCornell: Engineering Prokaryotic Collagen-Based Scaffolds to Guide Cell Growth i... (2021) - Team...**Title:** Engineering Prokaryotic Collagen-Based Scaffolds to Guide Cell Growth in Damaged Joint Tissues **Description:** Numerous cell types must grow in specific patterns to form functional knee and elbow joints, and injury healing in these areas is difficult as these cells must all regenerate in very exact locations. This project aims to improve tissue healing by developing a prokaryotic collagen-based scaffold; this acts as a pre-programmed framework that precisely directs the growth arrangements of mouse myoblasts and fibroblasts. Strains of Escherichia coli were engineered to produce Scl2 proteins with binding motifs for integrin and fibronectin; these customizable protein products were incorporated into a hydrogel, providing a physical structure to which the mouse cells attach. The hydrogels feature optimal spatial distributions of binding motifs tailored to each cell line, causing them to grow in desired patterns due to the differences in their respective ECM affinities for integrin and fibronectin binding sites. The effectiveness of these hydrogels was characterized through cell cultures and microscopic imaging. [Wiki](https://2021.igem.org/Team:Cornell)https://static.igem.org/peertube/streaming-playlists/hls/7dc5828d-602e-4348-a974-84935b267137/df82d8da-4b15-4d9d-ae35-bf6677eb41c3-master.m3u8https://video.igem.org/videos/embed/gwMCd89ZLLkXaBRdWUWgaz9650372021-10-28T11:51:24.704ZYES2021 Team PresentationsNOhttps://video.igem.org/w/cTZ1HoFTqD58SBt32jeQi5https://video.igem.org/lazy-static/thumbnails/a0dd1ed9-29c5-400a-a609-53f0868df2f9.jpgHZAU-China: P.E.T: Pets' Enteric Test (2021) - Team Presentation [English]**Title:** P.E.T: Pets' Enteric Test **Description:** Inflammatory bowel disease (IBD), whose victim almost covers all mammalian species, is an immune-mediated disease at the intersection of complex interactions among genetics, environment and gut microbiota. Compared with human-beings, pets are not able to voice their current health conditions directly; thus, delayed diagnosis becomes a common phenomenon. Taking the most common pets- dogs as objects, HZAU-China aims to develop a method based on synthetic biology to detect IBD at an early stage. The modified Escherichia coli Nissle 1917 can sense the concentration change of biomarkers. If pets suffer from IBD, the bacteria will amplify the unperceivable pathological change by producing substance with special smell and release therapeutic protein. Whatever pets' health conditions are, the modified bacteria will release health-care unit, exerting profound positive effects on pets' health. In the future, our project will be further ameliorated so as to apply this detective method to a wider range of mammals. [Wiki](https://2021.igem.org/Team:HZAU-China)https://static.igem.org/peertube/streaming-playlists/hls/605697b5-555a-4de4-b884-194908c15a66/929ecbac-2810-4066-a598-66a575b329e5-master.m3u8https://video.igem.org/videos/embed/cTZ1HoFTqD58SBt32jeQi5109502042021-10-28T12:08:18.301ZDiagnosisAsiaIBDYES2021 Team PresentationsNOhttps://video.igem.org/w/44aMhfcbg8zPBM2noYAR6Nhttps://video.igem.org/lazy-static/thumbnails/50e88781-cbc1-418d-a743-323947d6e0ff.jpgNJTech_China: Saving Rose Plan Design and Construction of Synthetic Yeast-Microa... (2021) - Team...**Title:** Saving Rose Plan Design and Construction of Synthetic Yeast-Microalgae Consortia for Biosynthesis of Phenylethanol **Description:** Phenylethanol has been widely used in cosmetics and other fields owing to its rose aroma. This project chooses Saccharomyces cerevisiae as the chassis microorganism, optimizes the phenethylamine pathway of different sources and expression modes, improves the activity of phenylacetaldehyde synthase through promoter engineering, establishes a yeast-microalgae microbial consortia system based on nutritional complementation and metabolites exchange. The combination with 3D printing microcapsule embedding technology will eventually guide to establish a robust, stable, and controllable artificial microbial consortia system for the green and efficiency phenylethanol biosynthetic. [Wiki](https://2021.igem.org/Team:NJTech_China)https://video.igem.org/static/streaming-playlists/hls/18bcacc3-4bf7-4a72-9f1d-797baaa21284/44e4a056-1ec8-4a70-ba40-eb86689d77ae-master.m3u8https://video.igem.org/videos/embed/44aMhfcbg8zPBM2noYAR6N8640162021-10-28T12:15:47.168ZYES2021 Team PresentationsNOhttps://video.igem.org/w/5XrmKZXcBGCt6y4GoyU9DMhttps://video.igem.org/lazy-static/thumbnails/301b76fb-ffab-4d35-b019-834440cbb932.jpgWhittle: Mural artist: Cyanobacteria-produced Auxin to Engineer Plant Growth in ... (2021) - Team...**Title:** Mural artist: Cyanobacteria-produced Auxin to Engineer Plant Growth in Horticulture **Description:** Plant hormone plays an important role in agriculture and horticulture manufacture. As such, they have gained widespread commercial use in nurseries and in farming. This year, Whittle iGEM tries to produce indole-3-acetic acid (IAA), a main plant hormone, by using Cyanobacteria PCC6803. First, we introduced the gene of yeast into Escherichia coli, and construct the IPA pathway. By taking Trp as the substrate, we verified that the genetic pathway is able to convert 80% of Trp into IAA within 48 hours. Afterwards, we built the expression vector of cyanobacteria and convert it into Cyanobacteria PCC6803. We hope to manufacture cyan sponge bricks that contain this microorganism to produce our product Auxwall, and promote the growth of plants in garden landscaping. We hope that this product will transform the agriculture and landscape design in the future. [Wiki](https://2021.igem.org/Team:Whittle)https://static.igem.org/peertube/streaming-playlists/hls/282216df-feac-41e0-b0df-f8bd7d96870f/edc04368-2978-4b8d-9eeb-c6e9f761f613-master.m3u8https://video.igem.org/videos/embed/5XrmKZXcBGCt6y4GoyU9DM10180292021-10-28T13:26:43.576ZYES2021 Team PresentationsNOhttps://video.igem.org/w/sNJARKWjj19cwxTE7Rtq9Vhttps://video.igem.org/lazy-static/thumbnails/b97dd9eb-7760-4888-923b-b69e22ab52a0.jpgFSU: ChiFresh: Combatting Food Insecurity by Extending the Shelf Life of Fresh P... (2021) - Team...**Title:** ChiFresh: Combatting Food Insecurity by Extending the Shelf Life of Fresh Produce **Description:** Florida's Big Bend Area consists of 11 counties. At least,150,000 members of our community are experiencing food insecurity. There are multiple causes of food insecurity including low household income and food deserts. We are addressing the problem by extending the shelf life of fresh produce so more members of our community have access to balanced meals. Our solution is the ChiFresh system composed of debit card-accessible refrigerators in areas with decreased access to fresh produce, a chitosan-based protective coating that extends the shelf life of fresh produce, and chitin-based packaging that is biodegradable. We focused on lowering the cost and environmental impact of chitin production. We developed engineered cells intended to secrete chitin known as the Chitin Secretion Cells and we converted Brewer's Spent Yeast into a medium for growing the Chitin Secretion Cells. ChiFresh has the potential to combat food insecurity in the Big Bend area and beyond. [Wiki](https://2021.igem.org/Team:FSU)https://static.igem.org/peertube/streaming-playlists/hls/d9141287-5675-4d77-a864-a18b51507d6d/8f2271ce-9ec2-439b-9f2c-9d3c07c74e10-master.m3u8https://video.igem.org/videos/embed/sNJARKWjj19cwxTE7Rtq9V10400362021-10-28T14:25:49.305ZFoodInsecurityChitinChitosanYES2021 Team PresentationsNOhttps://video.igem.org/w/mSejApec1vMUq6KHtNLyhwhttps://video.igem.org/lazy-static/thumbnails/f0dc5eed-311d-4a39-b121-c3a9f5c1933d.jpgNDNF_China: Hidro - Say Hi to the World (2021) - Team Presentation [English]**Title:** Hidro - Say Hi to the World **Description:** There is no denying that synbio is a hugely potential field. But for engineered strains to function beyond laboratories, some obstacles are holding them back. NDNF_China hopes to help these strains work beyond the laboratory in a safe, stable and traceable way. Here we present Hidro: a hydrogel system enclosing engineered bacterial strains. The outer layer of Hidro is a compact shell, offering both protection and containment, preventing the strains from escaping into the wild; the inner core of Hidro provides a supportive environment for them under harsh conditions, thus enabling their stable function; A genome-integrated Tracing and Control system offers tracking and specific killing of engineered strains in case of emergencies. We have experimentally demonstrated that Hidro can be implemented in diverse scenarios, such as heavy metal sensing, food-quality detection, drug secretion, etc. The Hidro system has the great potential to promote synthetic biology applications beyond the laboratory. [Wiki](https://2021.igem.org/Team:NDNF_China)https://static.igem.org/peertube/streaming-playlists/hls/a8fa2bb9-1b6b-424d-bb1c-5aa8d2cc289e/20ffc3a2-6508-49ac-bfc2-cb2b36e37fa2-master.m3u8https://video.igem.org/videos/embed/mSejApec1vMUq6KHtNLyhw118501632021-10-28T14:37:38.289ZBiosafetyMaterialCRISPRSensorDrugdeliveryYES2021 Team PresentationsNOhttps://video.igem.org/w/9oZ2j7S2PG6Gvmv6SWT28jhttps://video.igem.org/lazy-static/thumbnails/36174f1d-f44f-4391-9172-0c47b953db10.jpgUI_Indonesia: Helicostrike (2021) - Team Presentation [English]**Title:** Helicostrike **Description:** Helicobacter pylori (H. pylori) is a gram negative spiral shaped microaerophilic bacteria that resides in the stomachs of almost half the world population. Its pathogenic effect due to numerous virulence factors lead to various gastric pathologies including peptic ulcer disease and gastric cancer. Although it has been established since 1982, we are facing some treatment challenges especially regarding the biofilm formation and its role in antibiotic resistance. So, we engineer an E. coli, specifically E. coli Nissle 1917, a probiotic strain to be able to chase the H. pylori, disperse its biofilm using a protease: Proteinase-K, and kill the H. pylori using a antimicrobial peptide, PGLa-AM1. [Wiki](https://2021.igem.org/Team:UI_Indonesia)https://static.igem.org/peertube/streaming-playlists/hls/43fe9d18-fdf2-4646-820e-5b830eeadd24/f6027e98-0e6d-4791-93c5-ef59010461e5-master.m3u8https://video.igem.org/videos/embed/9oZ2j7S2PG6Gvmv6SWT28j11960762021-10-28T15:29:19.064ZYES2021 Team PresentationsNOhttps://video.igem.org/w/xk4U8BvAmyh9cWVMqeUboyhttps://video.igem.org/lazy-static/thumbnails/e573814c-91fa-470b-9ef6-3bdd8ebebecc.jpgAix-Marseille: ARBO-BLOCK : To a novel eco-friendly way to prevent mosquito-tran... (2021) - Team...**Title:** ARBO-BLOCK : To a novel eco-friendly way to prevent mosquito-transmitted viral diseases spread **Description:** Arboviral diseases, such as Zika, Dengue and Chikungunia are a serious threat to human health as no vaccines against them exist. Furthermore, global warming is causing the spread of the mosquito vectors of these diseases, including to the South of France. However, mosquitos are an important element of biodiversity in the environment and part of ecosystem food chains. We have designed and engineered ARBO-BLOCK, an innovative, and eco-friendly solution to prevent arboviral diseases spread. Using a modified bacterium from the mosquito microbiota to specifically detect and kill only dangerous virus-infected mosquitoes, while preserving uninfected mosquitoes. ARBO-BLOCK is designed around a timed lysis device, that results in bacterial lysis and release of large amounts of arthropod lethal toxins accumulated following the detection of viruses in the mosquito gut. [Wiki](https://2021.igem.org/Team:Aix-Marseille)https://static.igem.org/peertube/streaming-playlists/hls/fdb4d533-a8ee-4ff5-9f73-073b5c008334/b916e332-feec-4145-8595-6b7cf3ca2ccb-master.m3u8https://video.igem.org/videos/embed/xk4U8BvAmyh9cWVMqeUboy112801322021-10-28T15:41:20.407ZARBOBLOCKAixMarseilleMosquitoesArbovirusesEnvironmentYES2021 Team PresentationsNOhttps://video.igem.org/w/hAbxHeYvaQfECNMuHMAu4Yhttps://video.igem.org/lazy-static/thumbnails/e46ce1b2-dc20-4bec-9c34-3bcbb787d3f6.jpgTianjin: CREATE a yeast without chromosomes (2021) - Team Presentation [English]**Title:** CREATE a yeast without chromosomes **Description:** As the carrier of genetic information, chromosomes are vital to cells and even life. Most of the time, we cannot imagine what would happen to a cell without chromosomes. However, like Monkey King's curse in Journey to the West, chromosomes sometimes can be a burden to the cells. In our project, we have gotten out of the rut to create the CREATE Chromosome Released Eukaryote which is Active, Transitory and Environment-friendly , a yeast without chromosomes. Such cells have no chromosomes and cannot proliferate, but endogenous enzymes still remain active for a certain period of time. Taking advantage of these characteristics, CREATE might be a much safer bio-reactor used in drug delivery and gene therapy. Obviously, the applications of CREATE will never be limited to any certain field. We believe that CREATE has great potential to be applied in more fields deeply and widely. [Wiki](https://2021.igem.org/Team:Tianjin)https://static.igem.org/peertube/streaming-playlists/hls/865801a3-7970-4ea5-bef1-531e42855216/ebda4a77-926b-43c6-8832-b34d9cbe7b02-master.m3u8https://video.igem.org/videos/embed/hAbxHeYvaQfECNMuHMAu4Y9530362021-10-28T16:00:31.155ZChromosome-freeCellsFoundationalAdvanceYES2021 Team PresentationsNOhttps://video.igem.org/w/fPKnXeyLDKd5zr3khCKXQihttps://video.igem.org/lazy-static/thumbnails/722cc71f-d6d0-4dae-8ad9-b190c325c3d7.jpgSaint_Joseph: Cellulophile (2021) - Team Presentation [English]**Title:** Cellulophile **Description:** Water pollution caused by paper waste is a huge ecological problem. Cellulose, a polysaccharide, is the main compound of paper products and can be degraded by cellulases; primarily performing hydrolysis of the 1,4-beta-D-glycosidic linkages to produce monosaccharides, smaller polysaccharides and oligosaccharides (2,3). In this project, we aimed to find a biological solution to water pollution caused by paper contaminants. For this purpose, we used endoglucanase II enzyme from Trichoderma reesei and removed the linker region, CBM domain and the signal peptide from the gene (BBa_K3941001). Additionally, for the purpose of increase enzyme activity, we designed 2 mutant forms of this enzyme and conducted experiments (BBa_K3941003 and BBa_K3941002). For the same purpose, we also worked on the catalytic region of CelAB cellulase (BBa_K3941000) which produced from Teredinibacter turnerae. The results of this project promise that paper contaminated waters can be cleaned much more effectively and eco-friendly by using cellulases. [Wiki](https://2021.igem.org/Team:Saint_Joseph)https://static.igem.org/peertube/streaming-playlists/hls/780aa1a1-a870-44c6-a0fb-eaf5d0387165/88935ab5-c72f-4cfc-827b-9a0a58ae7e68-master.m3u8https://video.igem.org/videos/embed/fPKnXeyLDKd5zr3khCKXQi7450322021-10-28T16:16:13.259ZCellulaseEGIICelABYES2021 Team PresentationsNOhttps://video.igem.org/w/9Ry1kXjeXyVFB3Df2az8dKhttps://video.igem.org/lazy-static/thumbnails/cac043a1-6d7d-43d8-8bb8-1c311623b942.jpgMIT: B. Syruptilis, a Probiotic Treatment for Maple Syrup Urine Disease (2021) - Team Presentatio...**Title:** B. Syruptilis, a Probiotic Treatment for Maple Syrup Urine Disease **Description:** Maple syrup urine disease (MSUD) is a rare metabolic disorder characterized by the inability to break down branched-chain amino acids (BCAAs). Untreated, accumulation of toxic byproducts results in irreversible neurological impairment and death. Besides liver transplantation, there is no curative treatment. Those unable to undergo such treatment must strictly control dietary protein intake to prevent metabolic decompensation. However, the gut represents a promising non-invasive intervention point, demonstrated by the amino acid enterorecirculation model. After consulting industry professionals engineering a probiotic treatment for phenylketonuria, a similar metabolic disorder, academic and medical experts, and stakeholders affected by MSUD, we designed a B. subtilis probiotic strain to more efficiently catabolize BCAAs in the gastrointestinal tract. Our approach focuses on overexpressing genes for BCAA importers and catabolic enzymes via a regulatory recombinase switch; and developing an ODE model of probiotic BCAA metabolism based on B. subtilis growth, gene expression, enzyme kinetics, and recombinase activity. [Wiki](https://2021.igem.org/Team:MIT)https://static.igem.org/peertube/streaming-playlists/hls/47b44742-ff19-4210-94e7-fb5f34007937/97c91500-8020-412c-9de9-7e8c4835c44a-master.m3u8https://video.igem.org/videos/embed/9Ry1kXjeXyVFB3Df2az8dK9150622021-10-28T17:30:10.165ZGutMicrobiomeMSUDRareDiseasesProbioticYES2021 Team PresentationsNOhttps://video.igem.org/w/qJfq2DgtF7kD8N91cUuHWzhttps://video.igem.org/lazy-static/thumbnails/ca31d9ec-1115-4741-8928-1430c47b33ec.jpgUiOslo_Norway: PFASeOut (2021) - Team Presentation [English]**Title:** PFASeOut **Description:** PFAS is a collection of per- and polyfluoroakyl compounds that are water-repellent, which in ski wax gives the skis better gliding properties. The International Ski Federation (FIS) has banned the use of PFAS in ski wax during skiing competitions due to the toxic effects they have on the environment and on the health of ski wax appliers. For this ban to be effective and fair for the athletes, there must be a way to efficiently detect PFAS containing wax during competitions. Currently, there are no functioning test for field-use. To tackle this problem, we are using synthetic biology to develop such a detection device. Our detection method exploit two different genes from bacteria which can recognize PFAS compounds and cleave their C-F bond. The presence of PFAS compounds will be based on detection of released fluoride ions , either colorimetrically or by measuring changes in conductivity. [Wiki](https://2021.igem.org/Team:UiOslo_Norway)https://static.igem.org/peertube/streaming-playlists/hls/c8417305-1441-4f5f-a6b7-e03a44633ca1/cfce73bd-2f5c-4f64-af28-4a5b99fa74e7-master.m3u8https://video.igem.org/videos/embed/qJfq2DgtF7kD8N91cUuHWz755092021-10-28T16:25:18.761ZYES2021 Team PresentationsNOhttps://video.igem.org/w/iga4zTAQZ3gJ7u7z11VFNyhttps://video.igem.org/lazy-static/thumbnails/84af5c68-7b3c-45ef-b74b-84be6b3960ea.jpgSYSU-CHINA: CircRNA Assembly FacTory (2021) - Team Presentation [English]**Title:** CircRNA Assembly FacTory **Description:** We choose several methods to generate rational-designed circular RNA in eukaryotic cell, prokaryotic cell and in vitro environment, respectively, with a set of RNA binding proteins, to colocalize relative metabolic enzymes and accelerate specific biochemical reaction. [Wiki](https://2021.igem.org/Team:SYSU-CHINA)https://video.igem.org/static/streaming-playlists/hls/8bc9192a-490a-459d-9cfc-c55c3e5c3a90/580ae12a-c565-465e-a5c3-766565c867d9-master.m3u8https://video.igem.org/videos/embed/iga4zTAQZ3gJ7u7z11VFNy10660302021-10-28T16:41:33.322Z#CIRCRNA#SCAFFOLDYES2021 Team PresentationsNOhttps://video.igem.org/w/jEAzrcg1gzpgNv24vcPoSjhttps://video.igem.org/lazy-static/thumbnails/13fc6454-0229-4201-b0e3-67745d64a9a8.jpgUNILA_LatAm: BioPank - A paratransgenic platform for control of Leishmania trans... (2021) - Team...**Title:** BioPank - A paratransgenic platform for control of Leishmania transmission **Description:** Project BioPank is in honor of Pank, a little dog rescued from the streets that had her life shortened by complications from Visceral Leishmaniasis (VL). VL is a neglected tropical zoonosis that affects humans and other animals and has been growing in the region of Foz do Igua u and the triple border (Brazil, Paraguay and, Argentina). The SynFronteras team (UNILA_LatAm) will develop a strategy to stop VL transmission by improving the paratransgenesis technique with synthetic biology. We will engineer a Bacillus subtilis to produce an antimicrobial peptide (AMP) inside the midgut of the vector, preventing the parasite from developing, without killing the sandfly. Because of its antibacterial effects, the AMP with leishmanicidal activity DRS-N1, will be produced in its non-activated form and then, activated by enzymes present in the sandfly midgut. [Wiki](https://2021.igem.org/Team:UNILA_LatAm)https://static.igem.org/peertube/streaming-playlists/hls/97281150-ac00-4974-abfa-40075f9a06e6/b94224d2-0909-4ff1-a227-2bce854c8bf3-master.m3u8https://video.igem.org/videos/embed/jEAzrcg1gzpgNv24vcPoSj99203222021-10-28T17:31:19.404ZBiopankParatransgenesisUnilaSynfronterasLeishmaniasisYES2021 Team PresentationsNOhttps://video.igem.org/w/jeg3BfGLbXizMoPaqQ5uCfhttps://video.igem.org/lazy-static/thumbnails/5bc83576-a708-466c-9019-cd9c293d926f.jpgSZU-China: Gutail Floractory - A customized platform for IBD cocktail adjuvants ... (2021) - Team...**Title:** Gutail Floractory - A customized platform for IBD cocktail adjuvants based on intestinal engineered bacteria **Description:** IBD, as a chronic intestinal inflammatory reaction, recurs frequently and is a potential cancer risk. The disease is currently incurable and exerts many different stresses on patients. This year, we aim to develop a 'cocktail' of customized, genetically engineered intestinal probiotics as an adjuvant to alleviate the recurrence of IBD and improve patient's quality of life. Based on E. coli Nissle 1917 and L. lactis, we express four related substances to target IBD: butyric acid, which can consolidate the intestinal barrier and inhibit inflammatory pathways; human antimicrobial peptide LL37 for LPS resistance; SOD to reverse peroxide stress state; and BSH to reverse abnormal bile acid metabolism and reduce inflammation. To successfully implement our project in the context of potential patient needs, we write a business plan and design a series of hardware devices. We believe our project will be practical and can offer far-reaching benefits to many future patients. [Wiki](https://2021.igem.org/Team:SZU-China)https://static.igem.org/peertube/streaming-playlists/hls/939e6fca-1596-4939-ab4e-a838f3264486/173a2f15-c1b5-4ecd-8d20-a393b2bad980-master.m3u8https://video.igem.org/videos/embed/jeg3BfGLbXizMoPaqQ5uCf116402582021-10-28T17:50:50.527ZChinaManufacturingCocktailTherapyIBDYES2021 Team PresentationsNOhttps://video.igem.org/w/ieodEUF1f6QDzb72M1yQUUhttps://video.igem.org/lazy-static/thumbnails/dc47918d-0d39-41cd-9c9f-652d2734fd41.jpgCityU_HK: Synthetic Biology of Natural Products: Genomics-Driven Derivatization ... (2021) - Team...**Title:** Synthetic Biology of Natural Products: Genomics-Driven Derivatization of Variecolin. **Description:** Despite recent advances in medical science, humans are still facing some global health challenges, including emerging infectious diseases and debilitating diseases such as cancer. Hence, there is an unmet clinical need for new and effective drugs. However, a long-existing problem in drug discovery is the cost-effectiveness issue in finding effective drugs for clinical use. To address this, our team aims to develop a simple and cost-effective fungal synthetic biology platform to produce various derivatives of variecolin, a fungal natural product that shows potent therapeutic and antimicrobial properties. The platform consists of the genetically modified Aspergillus oryzae host with (1) a terpene synthase biobrick for the backbone synthesis and (2) a series of different cytochrome P450 monooxygenase biobricks to derivatize the variecolin scaffold. We have successfully obtained three novel variecolin analogues as confirmed by LC-MS and NMR analyses, and experiments are currently underway to characterize their biological activities. [Wiki](https://2021.igem.org/Team:CityU_HK)https://static.igem.org/peertube/streaming-playlists/hls/8b89b806-273e-46ee-aac0-555fa6c8221c/11ec28b3-96d7-4b8a-9041-a8fd8aa305cf-master.m3u8https://video.igem.org/videos/embed/ieodEUF1f6QDzb72M1yQUU11110582021-10-28T18:16:44.892ZHongkongDiscoveryAnticancerNovelMedicineTherapeuticsYES2021 Team PresentationsNOhttps://video.igem.org/w/7UjYY7xXj47aveDa1FRTJWhttps://video.igem.org/lazy-static/thumbnails/debc9d99-d4ee-4002-adc5-357b46d8d27e.jpgDTU-Denmark: Engineering K. Phaffii for methane utilisation (2021) - Team Presentation [English]**Title:** Engineering K. Phaffii for methane utilisation **Description:** Methane is a potent greenhouse gas contributing to climate change. The UN Sustainable Development Goals clearly emphasize the immediate need to combat climate changes to promote sustainability. Our project, Pheast, endeavored to design and test an engineered cell factory in yeast to use methane as a feedstock. We used Komagataella phaffii (P. pastoris), a methylotrophic yeast, to engineer this cell-factory since it has been used extensively in industrial protein production due to its high protein-secretion as well as ease of protein purification. To make the cell factory effectively use methane as a carbon source, recombinant pMMO subunits were incorporated from a natural methanotrophic bacteria, M. capsulatus. This way, methane is converted to methanol and K. phaffii can further use its native metabolic pathway to produce protein of interest. In the future, we believe this project will open the arena to produce many proteins of interest using this engineered, methane-consuming cell-factory. [Wiki](https://2021.igem.org/Team:DTU-Denmark)https://static.igem.org/peertube/streaming-playlists/hls/37e534c9-3011-4c42-84ce-7782ca4046be/c124f85d-27c9-4604-99d4-026ddb5840c1-master.m3u8https://video.igem.org/videos/embed/7UjYY7xXj47aveDa1FRTJW113802462021-10-28T18:32:28.629ZPHEASTK-PhaffiiDenmarkFoundationalAdvanceYES2021 Team PresentationsNOhttps://video.igem.org/w/qBop1rBg1GVTvVQsV4aMVwhttps://video.igem.org/lazy-static/thumbnails/5e13a5e9-dc65-4aaa-bb39-24d5e2681360.jpgMiamiU_OH: CROP: Creating RuBP Optimized Photosynthesis (2021) - Team Presentation [English]**Title:** CROP: Creating RuBP Optimized Photosynthesis **Description:** Global agricultural productivity is projected to not meet the needs of increasing populations developing higher standards of living. On a cellular level, crop yield is limited by the inefficiency of photosynthesis. Our project aims to improve this efficiency by implementing an alternative RuBP regeneration portion of the Calvin-Benson-Bassham (CBB) cycle. Two alternative pathways, which use enzymes from other reactions that act on common metabolites used in the CBB cycle, were explored first via computational modeling. Impacts on growth and reaction fluxes in silico assessed the validity of these pathways in creating a more robust photosynthetic cycle. One of these pathways which overexpresses the native enzyme transaldolase, was also assessed in vivo. Ultimately, we showed the validity of two alternative pathways in allowing a more efficient regeneration stage of the CBB Cycle. These pathways could eventually be implemented into higher plants to allow more robust cycling and therefore higher crop yield. [Wiki](https://2021.igem.org/Team:MiamiU_OH)https://video.igem.org/static/streaming-playlists/hls/c74c2988-4cd9-4922-b556-608245f3fdac/7833ad59-7e58-4457-b752-8f523296903f-master.m3u8https://video.igem.org/videos/embed/qBop1rBg1GVTvVQsV4aMVw10320642021-10-28T19:50:52.840ZYES2021 Team PresentationsNOhttps://video.igem.org/w/4v2fpJ4wc5LuaZztnmQ1Kthttps://video.igem.org/lazy-static/thumbnails/b730f613-8822-4200-af2a-5bd141d37167.jpgGO_Paris-Saclay: EndoSeek, detecting endometriosis (2021) - Team Presentation [English]**Title:** EndoSeek, detecting endometriosis **Description:** Endometriosis is a painful and poorly known pathology caused by proliferating uterine-lining cells outside of the uterus. It affects approximately 10% of women worldwide and can take up to 8 years to be diagnosed. Some blood-circulating microRNAs could constitute promising biomarkers as their concentration differs between patients with endometriosis and healthy women. iGEM GO-Paris-Saclay project EndoSeek aims to develop a new diagnostic tool to detect these miRNAs, exploiting the nucleases Cas13a and Cas14a1 and the production of a fluorescent signal that could be measured with a smartphone. We modeled the signal amplification provided by our nuclease cascade and attempted to identify new miRNAs endometriosis biomarkers from a public database using artificial intelligence. We created a video game to inform adults and children above 10 about endometriosis and the possibilities opened by synthetic biology. Finally, following our dialogue with patients and doctors, we questioned the ethical implications linked to diagnoses. [Wiki](https://2021.igem.org/Team:GO_Paris-Saclay)https://static.igem.org/peertube/streaming-playlists/hls/1c58c132-f035-44ac-b380-39061a4ff2f9/9242855e-0185-443a-a3e7-99df8714fbd1-master.m3u8https://video.igem.org/videos/embed/4v2fpJ4wc5LuaZztnmQ1Kt11970502021-10-28T20:32:47.491ZYES2021 Team PresentationsNOhttps://video.igem.org/w/cz7vC84ujokCkQog2Tcjanhttps://video.igem.org/lazy-static/thumbnails/ded23905-78e6-4414-9005-8012d1352bed.jpgUPF_Barcelona: ARIA: A democratizing AI-Synbio system to fight against antibioti... (2021) - Team...**Title:** ARIA: A democratizing AI-Synbio system to fight against antibiotic resistant bacteria **Description:** Drug-resistant bacteria cause 700,000 deaths per year, which could rise to 10 million by 2050. When standard treatments are not effective, saving lives implies rapidly profiling the pathogen's resistance, but traditional methods can delay this process from hours to days. The Antibiotic Resistance Inference Array (ARIA) aims to become a proof-of-concept for an innovative system that tackles this problem. First, we combine advanced algorithms to analyze large amounts of microbe genomic and functional data and define lists of resistance-related markers. Then, we create a library of self-growable biosensors that detect these markers, and we deploy them on a paper-based array: by adding a pathogenic sample to the array, a fluorescence pattern emerges. Finally, a cross-platform computer vision application automatically extracts from this pattern the set of markers found and sends it to an artificial intelligence module, which integrates it with patient-specific information to infer the most suitable countermeasure available. [Wiki](https://2021.igem.org/Team:UPF_Barcelona)https://static.igem.org/peertube/streaming-playlists/hls/5db41501-8727-4f73-a296-277c290ea8ef/b2c83259-cfbe-4b03-9ce1-66b933dab7c9-master.m3u8https://video.igem.org/videos/embed/cz7vC84ujokCkQog2Tcjan11810432021-10-28T22:35:21.579ZAntibioticResistanceBacteriaBiosensorAIYES2021 Team PresentationsNOhttps://video.igem.org/w/hted9aJqnUi5WStohZQzf6https://video.igem.org/lazy-static/thumbnails/2ca9ed83-75c8-4678-8a68-29ed86b6c6ee.jpgSiberia: LEAP2BRAIN (2021) - Team Presentation [English]**Title:** LEAP2BRAIN **Description:** The goal of our project is to provide a novel drug delivery system by combining the principles of living therapeutics and N2B delivery. We demonstrate this concept on LEAP2, an endogenous antagonist of the ghrelin receptor GHS-R1a, found in the hypothalamus. The results of an existing mural model suggest that LEAP2 may be used to treat Class I and II obesity in humans. To achieve this, LEAP2 must be periodically supplied directly to the brain. For nasally administered proteins, such delivery is possible via the olfactory and trigeminal nerves, thus bypassing the BBB. We created DH5 alpha and BL21 strains of E.coli that secrete a fusion protein composed of LEAP2, LMWP (a CPP) and a Myc-tag. We're also investigating how CPP's affect membrane permeability to proteins from the 'inside'. We plan to test our system using an in vitro ALI Transwell system with an artificial mucosal layer. [Wiki](https://2021.igem.org/Team:Siberia)https://static.igem.org/peertube/streaming-playlists/hls/855f70dd-dc26-4a71-ac3a-101e013e89e5/5988fbdc-f612-44a0-860b-5ceaedbd5d99-master.m3u8https://video.igem.org/videos/embed/hted9aJqnUi5WStohZQzf69880422021-10-28T23:10:26.882ZScienceSyntheticBiologyBioengineeringRussiaObesityYES2021 Team PresentationsNOhttps://video.igem.org/w/5YukcaTvdLqrQ9G4SfjZ9Lhttps://video.igem.org/lazy-static/thumbnails/57556f85-4b28-4096-93dc-f0302b47fbd3.jpgSZTA_RMG_Szeged: Developing a novel, inexpensive method to detect small RNAs in ... (2021) - Team...**Title:** Developing a novel, inexpensive method to detect small RNAs in biological samples **Description:** Our team aims to create an entirely new way of RNA detection. This method can serve as an alternative for the expensive rtPCR method in miRNA- or other small RNA-detection in research or medicine. We collaborated with GPs and researchers. The method is based on a unique idea of RNA amplification loop. We use magnetic beads coated with single-stranded probe DNAs on which the target RNA acts as a primer for second-strand synthesis. The resulted dsDNA is the starting point of a transcription process in the same medium. The newly synthesised RNAs start the process again and again, thus producing a high amount of dsDNA detected by increasing SYBR Green fluorescence. We calibrated a simple fluorimeter and proposed a self-designed and 3D-printed adaptor for PCR tubes as inexpensive hardware for qualitative analysis. A software tool was also developed to create appropriate DNA-probe sequences for any small RNAs. [Wiki](https://2021.igem.org/Team:SZTA_RMG_Szeged)https://static.igem.org/peertube/streaming-playlists/hls/2847aa51-34db-4001-b323-a2f264a038b0/3aa1afa8-6631-44db-955d-1fbd0f7252ef-master.m3u8https://video.igem.org/videos/embed/5YukcaTvdLqrQ9G4SfjZ9L119902222021-10-29T00:04:49.728ZYES2021 Team PresentationsNOhttps://video.igem.org/w/8TG4TAEFsi3wzd2F2vbM1Jhttps://video.igem.org/lazy-static/thumbnails/d1f866e2-59c0-4508-bc14-6616c41c9b20.jpgUCAS-China: DeCaffi: Personalized Caffeine Intake Management Scheme Based on Syn... (2021) - Team...**Title:** DeCaffi: Personalized Caffeine Intake Management Scheme Based on Synthetic Biology **Description:** With the popularity of caffeinated beverages, more and more people are troubled by caffeine sensitivity. People drink coffee during the daytime, but toss and turn at night because of the exciting effect of caffeine. In order to help humans better manage caffeine intake, we designed DeCaffi Project. Utilizing the conversion from caffeine to theacrine catalyzed by Cdh and CkTcS, we realized caffeine removal from customers' coffee. In view of the special liquid environment of hot coffee, we improved thermal stability of these enzymes through directed evolution and software PROSS. Using immobilized enzyme technology, we constructed a cell-free system that can quickly remove caffeine in our specially designed coffee cup, in which the sensor can monitor the changes of caffeine in real time. Additionally, considering convenience and user-friendliness, our software group has designed an App, which can collect data from coffee cups and bracelets, providing users with real-time caffeine intake suggestions. [Wiki](https://2021.igem.org/Team:UCAS-China)https://static.igem.org/peertube/streaming-playlists/hls/3fe79858-1b7a-425d-bd49-376a68ab41be/85aac91d-b858-42df-99dd-0a71d44ef82e-master.m3u8https://video.igem.org/videos/embed/8TG4TAEFsi3wzd2F2vbM1J10140402021-10-28T23:29:48.065ZDeCaffiDecaffeinationTheacrineYES2021 Team PresentationsNOhttps://video.igem.org/w/pAXweaAdkj3NpvoRAwFqZihttps://video.igem.org/lazy-static/thumbnails/6a5803aa-8e9f-416f-98dc-3fd8d2dc5f33.jpgBHSF: Synthesis of Carminic Acid Using Gene-edited E.coli (2021) - Team Presentation [English]**Title:** Synthesis of Carminic Acid Using Gene-edited E.coli **Description:** The general idea of this experiment is to use the gene edited E.coli to express the gene fragments of polyketide synthase, cyclase, monooxygenase and c-glucosyltransferase. After enduring a series of chemical reaction, the edited E.coli is able to generate carminic acid. [Wiki](https://2021.igem.org/Team:BHSF)https://static.igem.org/peertube/streaming-playlists/hls/bf23b188-60ea-43f0-a36a-03c81998bfd3/3732483b-f516-4f19-b8b4-3cf59bef7eb3-master.m3u8https://video.igem.org/videos/embed/pAXweaAdkj3NpvoRAwFqZi11650122021-10-28T23:39:40.679ZYES2021 Team PresentationsNOhttps://video.igem.org/w/ke9YNDRmHn9a7G2AW1Umtihttps://video.igem.org/lazy-static/thumbnails/e67d6bcd-ddf2-4a95-bd93-61d29354bf6d.jpgGreatBay_SZ: ARTAG - Artificially Revolutionized Tracking Art Gadget (2021) - Team Presentation [...**Title:** ARTAG - Artificially Revolutionized Tracking Art Gadget **Description:** Many artworks now have serious fraud problems. These counterfeit products have significantly harmed the rights and interests of consumers and even more disrespect for artists. However, the current appraisal of artworks is poor, complicated and expensive. In this regard, GreatBay_SZ has developed ARTAG - Artificially Revolutionized Tracking Art Gadget. In ARTAG, yeast spores, which have strong tolerance and adhesion, were used as an ideal carrier for long-time DNA barcode storage. Customized DNA-encode barcode information was integrated into the genome of the yeast through homologous recombination. A CRISPR-based nucleic acid detection system was introduced to detect sequences quickly and efficiently in terms of information decoding. In general, ARTAG offers an accurate, rapid, durable, invisible and cost-efficient spore detection system to verify the authenticity of artworks. It provides new possibilities for all anti-counterfeiting technologies and markets. [Wiki](https://2021.igem.org/Team:GreatBay_SZ)https://static.igem.org/peertube/streaming-playlists/hls/9bb3d658-d039-4587-b2e0-7f310f0463df/b84c058b-5cb1-4fb6-82b3-64d3b257d757-master.m3u8https://video.igem.org/videos/embed/ke9YNDRmHn9a7G2AW1Umti118501062021-10-28T23:52:10.344ZSporeCRISPRNucleicAcidDetectionChineseCultureAnti-CounterfeitingYES2021 Team PresentationsNOhttps://video.igem.org/w/8sA6jtDX7QSrMyprGDJ7mfhttps://video.igem.org/lazy-static/thumbnails/7e3a0dde-3a46-4522-89fa-90b45d10cdc4.jpgYucai_SZ: A composite material for fresco restoration based on engineered E.coli (2021) - Team Pr...**Title:** A composite material for fresco restoration based on engineered E.coli **Description:** The restoration of traditional frescos is a difficult process. Our project is to operate the modified E.coli which can be induced by blue light to produce a layer combined calcium carbonate, pigment and adhesive directly at the damaged position of the fresco. After the combination of these three, a micron level colored calcium layer will be formed on the wall surface, so as to repair the damaged frescos. [Wiki](https://2021.igem.org/Team:Yucai_SZ)https://static.igem.org/peertube/streaming-playlists/hls/3c665182-694b-407e-a29a-33d707da360e/bd0431ee-a991-4ca0-ab2d-fcdda541471c-master.m3u8https://video.igem.org/videos/embed/8sA6jtDX7QSrMyprGDJ7mf7520252021-10-29T00:11:46.249ZYES2021 Team PresentationsNOhttps://video.igem.org/w/kA7NWPriC9LAzqkXxuz7yphttps://video.igem.org/lazy-static/thumbnails/04f1219e-b41a-42ee-9469-a34b2350d230.jpgUCSC: Progenie: A prokaryotic sequence-specific gene elimination system (2021) - Team Presentatio...**Title:** Progenie: A prokaryotic sequence-specific gene elimination system **Description:** Shiga toxin-producing Escherichia coli (STEC) outbreaks are one of the leading causes of food recalls in the United States; infections can cause diarrhea, vomiting, fever, and even kidney failure and death. We developed a programmable in-situ gene-elimination system, Progenie, to selectively knock-out the Shiga-toxin producing gene stx2 from an environmental microbial community reducing STEC outbreaks without harming commensal bacteria. Progenie consists of an initial phage delivery of a conjugatable plasmid encoding an RNA-guided transposon system that self-integrates into a targeted locus and spreads to neighboring microbes. Using E. coli with chromosomally-integrated mcherry as a model for stx2, we measure mCherry fluorescence to quantify the effectiveness and extent of our gene knockout system. Progenie can not only reduce STEC-related food recalls, illness, and waste, but can generalize to disable virulence factors or antibiotic resistance in a host of other microbes. [Wiki](https://2021.igem.org/Team:UCSC)https://static.igem.org/peertube/streaming-playlists/hls/9ea11e81-551e-4e78-9bd8-f8c017381ab7/432a5af7-3209-42c5-8873-86a3c2db3eb0-master.m3u8https://video.igem.org/videos/embed/kA7NWPriC9LAzqkXxuz7yp10160652021-10-29T00:29:32.109ZCRISPRGeneEditingNorthAmericaAntimicrobialPhageTherapyYES2021 Team PresentationsNOhttps://video.igem.org/w/uQ4i6Ev1cgLPXU5G9sePX2https://video.igem.org/lazy-static/thumbnails/faf895d5-1a30-4d16-a90c-b49aacd760d0.jpgUParis_BME: ExoSwitch liquid biopsy for early-stage cancer screening (2021) - Team Presentation [...**Title:** ExoSwitch liquid biopsy for early-stage cancer screening **Description:** Despite the growing arsenal of antitumor therapies, cancer remains the 2nd leading cause of death worldwide. A tumour starts developing asymptomatically, becoming less responsive to therapy by the time of diagnosis. We can detect cancer sooner by screening bodily fluids, such as blood or urea, for presence of tumour-associated biomarkers. These biomarkers include proteins, nucleic acids, and circulating tumour cells. However, a large-scale screening initiative requires a test for a dynamic marker that appears early during the disease and is shared by multiple tumours, such as microRNA (miRNA). Our prototype microfluidic chip, ExoSwitch, makes nucleic acid detection acessible and simple. By utilizing de novo designed RNA machines termed toehold switches, it allows rapid detection of multiple cancer-linked miRNAs. The lab-on-chip technology offers parallel testing for multiple targets and requires minimal equipment to perform the assay. Combining low cost and easy distribution, ExoSwitch can bring accessible tumour screening to patients worldwide. [Wiki](https://2021.igem.org/Team:UParis_BME)https://static.igem.org/peertube/streaming-playlists/hls/e9759d2a-25f7-4fd7-bf3a-02ea2f8e44bb/2a3da3d6-748a-47d3-b912-dda8fb65f740-master.m3u8https://video.igem.org/videos/embed/uQ4i6Ev1cgLPXU5G9sePX211010342021-10-29T00:38:30.222ZYES2021 Team PresentationsNOhttps://video.igem.org/w/6dKhURDtesaKR8MJ1F3a5dhttps://video.igem.org/lazy-static/thumbnails/75ef6d32-9368-4dd1-b8a6-e1837205e145.jpgBJ101ID: Enhancing Recycled Paper (2021) - Team Presentation [English]**Title:** Enhancing Recycled Paper **Description:** Ever since the industrial revolution, mass manufacturing of products through assembly lines and technologies emerged. Paper, being a commonly used household and working item, had production boost from 20th century. Meanwhile, people realized how their actions damaged environment, which pushed the development of Recycled Paper. Up to now, recycled paper process is still not 'environmentally-friendly' and the quality is not as good as first-hand one. BJ101ID are dedicated to solving this problem using synthetic-biology. We explored the possible effects of additives sericin and chitosan on recycled paper s strength and elasticity and proved the improvement in lab. Through E.coli, we were able to produce these two substances by genetic modification. Further experiment and modeling formulated a preeminent result with high quality and spotless paper. At the same time, we developed partnerships and collaboration with other iGEM teams and educated the new generation with what we know through seminars and online conferences. [Wiki](https://2021.igem.org/Team:BJ101ID)https://static.igem.org/peertube/streaming-playlists/hls/2a454c44-855a-41db-b6fe-8a780b42bcf8/7118f137-f9e9-426e-a439-d9eabc0d61a3-master.m3u8https://video.igem.org/videos/embed/6dKhURDtesaKR8MJ1F3a5d11250122021-10-29T00:47:09.881ZRecycledPaperSericinChitosanEnvironmentProtectionSyntheticBiologyInnovationYES2021 Team PresentationsNOhttps://video.igem.org/w/94sC7KavHiFmm3FhFUbXznhttps://video.igem.org/lazy-static/thumbnails/5bec3b57-4512-49c6-ba85-187f4b8333c2.jpgTongji_Software: Phage-MAP (2021) - Team Presentation [English]**Title:** Phage-MAP **Description:** Phage therapy has become one of the most promising alternatives to antibiotics in the treatment of bacterial diseases, and identifying phage-host interactions helps to understand the possible mechanism through which a phage infects bacteria to guide the development of phage therapy. Compared with wet experiments, computational methods of identifying phage-host interactions can reduce costs and save time and are more effective and economic. Through two methods, alignment-based and alignment-free, our team attempted to find accurate Phage-bacteria interactions, contributing to phage therapy, and further contributing to the application of phage as a model organism in synthetic biology. [Wiki](https://2021.igem.org/Team:Tongji_Software)https://static.igem.org/peertube/streaming-playlists/hls/4144bf56-26f2-48f2-9c19-d26f57c571fb/462d1047-869d-4921-9391-5c825df11933-master.m3u8https://video.igem.org/videos/embed/94sC7KavHiFmm3FhFUbXzn8900852021-10-29T00:56:27.519ZYES2021 Team PresentationsNOhttps://video.igem.org/w/k9zyijtZw8zjnmiUV2MaSQhttps://video.igem.org/lazy-static/thumbnails/5ff84a65-a41a-4750-9869-c8855ebb54dc.jpgUPenn: Engineering the OptoReader: a device for high-throughout optical stimulat... (2021) - Team...**Title:** Engineering the OptoReader: a device for high-throughout optical stimulation, measurement, and feedback in microwell plates **Description:** Optogenetic tools allow for unprecedented dynamic control, immediacy, and reversibility of metabolic processes. However, there lacks methods to stimulate and monitor optogenetically-responsive samples simultaneously in a high-throughput manner. We developed the OptoReader to address this gap. The OptoReader is an affordable, open-source device that couples optogenetic stimulation with real-time fluorescence and optical density measurements, allowing for 96 programmable parallel experiments. It consists of two circuit boards. The stimulation assembly is a modified optoPlate-96. The reader assembly is an array of photodiodes and UV LEDs compatible with a standard 96-well plate. Arduino microcontrollers control both circuit boards to communicate with a general computer and each other. We demonstrate OptoReader measurement of OD and fluorescence in bacterial cultures and show how OD readings can be used for feedback controlled optogenetic stimulation parameters. We expect that the OptoReader will enable entirely new optogenetic experiments with impact in both basic and applied sciences. [Wiki](https://2021.igem.org/Team:UPenn)https://static.igem.org/peertube/streaming-playlists/hls/9b1043cd-ae03-43ca-bd68-254b79c68f80/9a7f6e96-0bcf-4199-91ff-37b90b380390-master.m3u8https://video.igem.org/videos/embed/k9zyijtZw8zjnmiUV2MaSQ117802372021-10-29T01:10:40.893ZOptogeneticsTechnologyYES2021 Team PresentationsNOhttps://video.igem.org/w/qPPcSefZXpbihqU9oN6AYVhttps://video.igem.org/lazy-static/thumbnails/8290a053-e9c4-4556-ac65-a2f897cd6135.jpgCPU_CHINA: Construction of MnP-AAO-HFB1 composite system based on CRISPR/dCas9 p... (2021) - Team...**Title:** Construction of MnP-AAO-HFB1 composite system based on CRISPR/dCas9 programmable assembly technology for polyethylene plastic oxidation. **Description:** Examplified by polyethylene, undegradable plastics have a degradation period of hundreds of years under natural conditions, causing severe environmental crisis worldwide. Manganese peroxidase (MnP) uses hydrogen peroxide (H2O2) to produce high-redox-potential Mn3+, possessing a PE-degrading potential. Our project takes MnP as our key PE-degrading enzyme, employs aryl alcohol oxidase (AAO) to provide H2O2 for MnP, and utilizes hydrophobin-1 (HFB1) to increase substrate accessibility, as well as combines SpyCatcher-SpyTag system with CRISPR/dCas9 system to anchor MnP, AAO and HFB1 onto one double-stranded DNA scaffold according to certain spatial order, distance and proportion. The final complex works as a molecular machine that can adhere and degrade PE in a green and swift way [Wiki](https://2021.igem.org/Team:CPU_CHINA)https://static.igem.org/peertube/streaming-playlists/hls/c908603a-4ed8-4479-be79-5ddd1ace7315/4bf2369d-1c16-4263-ad41-f3afba57ebeb-master.m3u8https://video.igem.org/videos/embed/qPPcSefZXpbihqU9oN6AYV11370672021-10-29T01:20:48.348ZPlasticDegradationMolecularMachinePolyethyleneDegradistPEDe.YES2021 Team PresentationsNOhttps://video.igem.org/w/izJjzLiDZb6rLHJgzTwN6bhttps://video.igem.org/lazy-static/thumbnails/1e479fb5-d85f-43f6-b9c7-c2f84f1f703d.jpgSt_Andrews: The Overproduction of Shinorine (a UV-Protecting Molecule) and its P... (2021) - Team...**Title:** The Overproduction of Shinorine (a UV-Protecting Molecule) and its Potential Application to Probiotic Sunscreens **Description:** Chemical toxins such as octinoxate and oxybenzone, found in many commercially-available sunscreens, contribute to coral reef degradation. To combat this problem, a solution was designed whereby Shinorine, a natural, UV-protecting compound could be synthetically overproduced by probiotic Nissle 1917 E. coli - these bacteria would be combined with a lotion containing a carbon-rich nutrient medium, creating a sustainable, ocean-friendly sunscreen alternative that could be applied directly onto the skin. The aim during the Phase II stage was to clone constitutive genes into plasmids, transform these into BL21 E. coli cells, and finally test for the expression of the enzymes of the Shinorine-producing pathway. ATPG, the initial gene in the Shinorine-producing pathway, was successfully cloned into the pETDuet-1 plasmid, however cloning the other three genes into their plasmids proved difficult. To conclude, it was shown that ATPG can be successfully cloned into the pETDuet-1 plasmid via Gibson assembly. [Wiki](https://2021.igem.org/Team:St_Andrews)https://static.igem.org/peertube/streaming-playlists/hls/8e60fb84-9301-459f-a2f2-e28cf766d5e4/6f7a55e7-ecd0-45ae-8f49-94808c7709fb-master.m3u8https://video.igem.org/videos/embed/izJjzLiDZb6rLHJgzTwN6b1200082021-10-29T01:31:00.565ZYES2021 Team PresentationsNOhttps://video.igem.org/w/aifkjJHkff5fLTtNMgjQTzhttps://video.igem.org/lazy-static/thumbnails/3e74570a-31d1-49f1-830b-cfb9475711ab.jpgNMU_China: Toggle Macrophages (2021) - Team Presentation [English]**Title:** Toggle Macrophages **Description:** Elimination of the SARS-COV-2 and balance the immune response are both important for late-stage COVID-19, however, no ideal therapeutics can achieve the two goals for our knowledge. To address this, we have 1) designed synthetic antiviral macrophages with immune-regulatory capacity and 2) demonstrated its feasibility through both in vitro experiments and mathematical modeling. The designed synthetic antiviral macrophages, termed 'Toggle Macrophages', have the phagocytic capacity specific for SARS-COV-2 and showed pro-inflammatory/anti-inflammatory phenotypic transformation according to the level of local IL-6 concentration. Therefore, as 'smart' therapeutics, Toggle Macrophages can both reduce the viral load through phagocytosis and balance the immune system via phenotypic transformation. We further mathematically modeled and analyzed the feasibility of the practical application of Toggle Macrophages in humans. This work supports the use of Toggle Macrophages as a novel Genetically Engineered Cellular Platform that may be useful in future therapeutic approaches against severe COVID-19. [Wiki](https://2021.igem.org/Team:NMU_China)https://static.igem.org/peertube/streaming-playlists/hls/4b4ab9a3-800f-4299-9971-ae8f935b084f/dce3020f-5ab4-46c9-ae80-1aa265009cd8-master.m3u8https://video.igem.org/videos/embed/aifkjJHkff5fLTtNMgjQTz11960792021-10-29T01:40:45.277ZCARCOVID-19SARS-CoV-2MERTKIL-6YES2021 Team PresentationsNOhttps://video.igem.org/w/1YhgBySqeafpetXAN3Tjmfhttps://video.igem.org/lazy-static/thumbnails/55b908a8-8eb7-4411-a3f8-95a65f28429f.jpgThessaly: Amalthea: a complete prevention toolkit to gut dysbiosis (2021) - Team Presentation [En...**Title:** Amalthea: a complete prevention toolkit to gut dysbiosis **Description:** Diet-related non-communicable diseases (NCDs) are one of the greatest pandemics of the 21st century. Most of them are reflected on the metabolic capacity of the gut microbiome, thus making it an attractive target for further research and interventions. The impairments on the microbiome s metabolic profile, called gut dysbiosis, is characterized by altered concentrations of Short Chain Fatty Acids (SCFAs). Thus, we are developing a bioelectronic capsule that utilizes a biosensor which correlates the amount of gut SCFAs with gut microbiome functional capacity, also supported by a kinetics-oriented in silico analysis. The data is digitized and transmitted to a mobile application, where a multidisciplinary team of health experts evaluate the data received. If dysbiosis is detected, we alleviate it by the usage of a living biotherapeutic, synbiotic nutritional supplement in a personalized manner. [Wiki](https://2021.igem.org/Team:Thessaly)https://static.igem.org/peertube/streaming-playlists/hls/07dbad67-e724-4dcf-9579-4c6ac44242f6/8a435bca-4fcc-4b27-bce5-fb76afc879bc-master.m3u8https://video.igem.org/videos/embed/1YhgBySqeafpetXAN3Tjmf119802192021-10-29T01:55:25.775ZMicrobiomeAmaltheaFoodandnutritionYES2021 Team PresentationsNOhttps://video.igem.org/w/27NDehuLg57PPQCfo86faNhttps://video.igem.org/lazy-static/thumbnails/16d6b56c-5f20-4fad-a66f-6da50e01ef0c.jpgNTHU_Taiwan: Compine: A Novel Way to Solve Pine Wilt Disease (2021) - Team Presentation [English]**Title:** Compine: A Novel Way to Solve Pine Wilt Disease **Description:** Pine wilt disease is caused by specific nematodes Bursaphelenchus xylophilus. Our goal is to generate a kind of pine tree that can synthesize siRNA that encodes important gene information to B.xylophilus, such as targeting genes related to reproduction and pathogenicity. As soon as the nematodes uptake plant cells, siRNA generate by pine trees will knock down genes that significantly influent the survival of nematodes. We build a model to simulate how the diffusion of siRNA in B.xylophilus. And the birth and dead model we build is to simulate the activity of nematodes on plant callus. We have published an article on PanSci and meet related environmental groups. Our podcast program has launched on several platforms and we designed a board game--Adaptor, introducing this environmental issue and synthetic biology to the public. We hope to generate an efficient method to solve PWD comparing to traditional methods. [Wiki](https://2021.igem.org/Team:NTHU_Taiwan)https://static.igem.org/peertube/streaming-playlists/hls/090c5869-80d2-4724-ad37-4678cda347a8/f1e81d12-5306-41f5-80af-23b5f2b55898-master.m3u8https://video.igem.org/videos/embed/27NDehuLg57PPQCfo86faN11880142021-10-29T02:07:09.846ZEnvironmentCompineNTHUPineWiltDiseaseYES2021 Team PresentationsNOhttps://video.igem.org/w/6qZepBmUNj6C6qZzCoEVJhhttps://video.igem.org/lazy-static/thumbnails/53c504e6-4caf-422b-a330-c17ccc1b3819.jpgVictoria_Wellington: Tropane alkaloid biosynthesis in prokaryotes (2021) - Team Presentation [Eng...**Title:** Tropane alkaloid biosynthesis in prokaryotes **Description:** Tropane alkaloids are plant secondary metabolites and include important medicinal compounds. Most applications are related to neurochemistry and range from the treatment of neuromuscular disorders, including Parkinson s disease, to the use as stimulants. There is increasing need for large-scale, climate-independent, and local production of tropane alkaloids as precursors for medicinal drugs. Our goal is to remedy the impact of world crises on the cultivation and exportation of these drugs. To this avail, we aim to develop a biosynthetic route for a tropane alkaloid intermediate, tropine, in Escherichia coli and the cyanobacterium Synechococcus elongatus. To the best of our knowledge this would be the first production of tropine in a prokaryotic organism and could provide an effective and cheap alternative to current tropine production methods. [Wiki](https://2021.igem.org/Team:Victoria_Wellington)https://static.igem.org/peertube/streaming-playlists/hls/2bfad050-d0de-4f3c-b554-132ec2516498/f78201e3-56e6-4dc7-a97c-d3fabc10b876-master.m3u8https://video.igem.org/videos/embed/6qZepBmUNj6C6qZzCoEVJh11260272021-10-29T02:26:00.273ZYES2021 Team PresentationsNOhttps://video.igem.org/w/7kUz9SB4FSpdYw6mAXnzrthttps://video.igem.org/lazy-static/thumbnails/6046cbcf-07bf-4e43-a4f9-097c9995c5ba.jpgTEC_COSTA_RICA: Chronobacter (2021) - Team Presentation [English]**Title:** Chronobacter **Description:** Inspired by the endless possibilities synthetic biology entails, we decided to approach its real life limitations as inspiration for our project and identified a problem: developing genetic circuits are biased to their core by combinatorial logic which limits functionality, circuit architecture and possible applications. Our objective is to pursue an incipient focus on genetic circuit development based on sequential logic, enabling new functions and expanding the possible applications for engineered organisms. We first developed a novel genetic counter system from which we constructed and modeled a genetic circuit, whose modularity enables it to behave as a toolbox with applications in all areas. To validate our approach we developed a framework and software which allow the construction of an extensive library of genetic circuits. This library can in turn be explored by several filters, designed to convey expression profiles, processes and functional applications of interest as defined by experts. [Wiki](https://2021.igem.org/Team:TEC_COSTA_RICA)https://static.igem.org/peertube/streaming-playlists/hls/335e5cab-7832-4df0-94ed-cb83732771e1/39a28558-9a5a-4ef9-a51c-3beaac60643d-master.m3u8https://video.igem.org/videos/embed/7kUz9SB4FSpdYw6mAXnzrt120001202021-10-29T02:47:13.111ZYES2021 Team PresentationsNOhttps://video.igem.org/w/gFzdMB2XSAcXTvEiL5DbJehttps://video.igem.org/lazy-static/thumbnails/798ac4f8-b545-479b-b733-28d575cc7aef.jpgMichigan: Investigating the Versatility of Encapsulin Protein Nanocompartments f... (2021) - Team...**Title:** Investigating the Versatility of Encapsulin Protein Nanocompartments for Drug Delivery **Description:** Encapsulins (Encs) are a class of proteins that self-assemble and envelope other functional cargo proteins when co-expressed. Encs are relatively simple protein shells, yet they are stable and can carry robust cargo. We believe this represents an opportunity for novel drug delivery. In this work, we investigate the intake of assembled Encs by living eukaryotic cells and whether the Enc containers can be disassembled by protein-degradation enzymes native to the targeted organism. Brewer s yeast (S. cerevisiae) was selected as the proof-of-concept organism for this project, and mNeon green was chosen as the model Enc cargo. We are cloning bacteria that will produce Enc shells with yeast mating pheromone tags displayed on their surfaces. The tags will encourage the yeast to endocytose the disguised Encs into the cell from the environment. Success will be measured by using fluorescence imaging to confirm the presence of assembled mNeon green-bearing shells within live cells. [Wiki](https://2021.igem.org/Team:Michigan)https://static.igem.org/peertube/streaming-playlists/hls/7eff8f4c-8670-4d28-9893-f2df11c098c1/953fc35d-08af-4bc1-b08f-b8667f645928-master.m3u8https://video.igem.org/videos/embed/gFzdMB2XSAcXTvEiL5DbJe10970342021-10-29T03:02:09.589ZDrugDeliveryEncapsulinsYES2021 Team PresentationsNOhttps://video.igem.org/w/ujK2AvAKcb58oMBA68s2JKhttps://video.igem.org/lazy-static/thumbnails/0671cc63-9ee9-4633-b6bc-c5f625e74eef.jpgLethbridge_HS: Knaptime is Over (2021) - Team Presentation [English]**Title:** Knaptime is Over **Description:** Our project is an RNAi-based herbicide targeting the invasive plant species, Centaurea stoebe, more commonly known as spotted knapweed. This project was inspired by the 2017 Kenow wildfire s devastating aftermath in Waterton National Park. The fire created the ideal environment for spotted knapweed to exponentially spread, limiting the resources for native plant species. Biological controls, manual removal, and chemical treatments are presently utilized to combat the infestation. However, these methods can be costly, time consuming or risk affecting local native species. Our project avoids these drawbacks. The bioengineered RNAi system would be delivered to specifically eliminate spotted knapweed by targeting a unique sequence in the Clp protease gene of the plant s chloroplast genome. We are using a new one-pot method for siRNA production and will first test our product on Arabidopsis thaliana. Knaptime is Over will help to preserve the world s biological diversity and test a new siRNA production method. [Wiki](https://2021.igem.org/Team:Lethbridge_HS)https://static.igem.org/peertube/streaming-playlists/hls/e55dc977-710a-4a70-90a4-f1b722e8cf73/2d39258c-9a06-4bef-8702-3f5ab61c4822-master.m3u8https://video.igem.org/videos/embed/ujK2AvAKcb58oMBA68s2JK11990432021-10-29T03:41:42.187ZRNAiWatertonInvasive_speciesAlbertaHigh_schoolYES2021 Team PresentationsNOhttps://video.igem.org/w/4A7Ln7pRRavkdaD7u6CkRXhttps://video.igem.org/lazy-static/thumbnails/8f788362-ce7f-4a90-8967-f03de034ab1e.jpgASIJ_Tokyo: ABrCaDaBra (2021) - Team Presentation [English]**Title:** ABrCaDaBra **Description:** With 2.3 million women diagnosed and 685,000 deaths in 2020, breast cancer has become a major problem in the global community. However, early detection can help increase the survival of patients. Current detection methods include mammograms and MRIs, which can be uncomfortable and expensive, raising the need for a better alternative. For our two-year project, we plan on creating a convenient breast cancer testing kit that would be similar in design to a pregnancy test through the detection of biomarkers found in sweat and tears. This year, we focused on verifying the interaction between aptamers and biomarkers using ELISA before developing a colorimetric aptamer-based detection assay with gold nanoparticles, which we hope will translate into our testing kit next year. Through our detection kit, we hope to raise early screening rates, allowing women to go through a pain-free and simple process that is reliable and accurate to detect breast cancer. [Wiki](https://2021.igem.org/Team:ASIJ_Tokyo)https://static.igem.org/peertube/streaming-playlists/hls/1d0edf88-6afb-4133-98fa-9bcfaca4006d/678c1446-d103-4d56-8448-099644b2ed28-master.m3u8https://video.igem.org/videos/embed/4A7Ln7pRRavkdaD7u6CkRX11710822021-10-29T03:55:24.064ZDetectionHighSchoolJapanBreastCancerAptamerYES2021 Team PresentationsNOhttps://video.igem.org/w/uTczrN45SHUKZUppfQSxYchttps://video.igem.org/lazy-static/thumbnails/580c2d5b-e9b2-4e8b-9c8b-287387ea3c1a.jpgHUST-China: Mr.Tony (2021) - Team Presentation [English]**Title:** Mr.Tony **Description:** An increasing number of people prefer perming or dyeing to add to their glamor and vigour, and existing hairdressing market scale in China alone is over 20 billion yuan, and that of overall beauty salon industry scale amounts to 380 billion yuan, according to a recent estimation. However, undesired health consequences brought by harmful chemicals used in perming and dyeing process are undisputable. Therefore, an optimized humanistic device for perming and dyeing based on engineered yeast producing natural pigments and short peptides was designed by HUST-China to tackle with this problem, which can produce enzyme to catalyze natural pigment precursors into natural pigments and express short peptides with abundant sulfhydryl. A xylose responding system was also created to fade the pigments ,straighten the curled hair, and resume the hair to its original state. Corresponding devices such as original fermenter were also designed to put engineered yeast in real life scenarios. [Wiki](https://2021.igem.org/Team:HUST-China)https://static.igem.org/peertube/streaming-playlists/hls/e9e5f2f8-7052-467d-a8c1-b69eb8ac7ce7/249e1761-b09a-4de8-982e-0853a847141b-master.m3u8https://video.igem.org/videos/embed/uTczrN45SHUKZUppfQSxYc12010732021-10-29T03:28:15.545ZPersonalIzedNaturalPigmentsDyeingPermingHairYES2021 Team PresentationsNOhttps://video.igem.org/w/preAZJEMC4HrgbPeXaJEtDhttps://video.igem.org/lazy-static/thumbnails/40859162-bf42-4fe5-8028-9c8d55f5943a.jpgPhystech_Moscow: No title (2021) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2021.igem.org/Team:Phystech_Moscow)https://static.igem.org/peertube/streaming-playlists/hls/bdc82ab3-adf2-4ba3-ac9a-c2ebba96a9db/3da128fa-fa87-4c58-a50d-865d4d3a7bd1-master.m3u8https://video.igem.org/videos/embed/preAZJEMC4HrgbPeXaJEtD8670242021-10-29T04:04:41.841Z#MIPT#ML#AI#Moscow#SkoltechYES2021 Team PresentationsNOhttps://video.igem.org/w/o6GytWKqqEmWmFZyzEYgNBhttps://video.igem.org/lazy-static/thumbnails/9ef030c4-ba38-4535-9409-d8a3082af7bb.jpgAthens: AdAPTED: Augmenting dNTPs And Polymerase Through Enzymatic Design (2021) - Team Presentat...**Title:** AdAPTED: Augmenting dNTPs And Polymerase Through Enzymatic Design **Description:** Nucleic acid amplification (NAA) techniques, such as Polymerase Chain Reaction (PCR), are a standard biological laboratory technique, also used for diagnostics. The aim of this project is to make NAA techniques more accessible. Two of the key components of PCR are a polymerase and the four deoxynucleotide triphosphates (dNTPs). However, the total cost of dNTPs production is significant and they are often produced by complicated, unsustainable chemical processes, mainly feasible in centralized laboratories with expensive equipment. For this project, a high yield genetic circuit is designed in order to produce ribonucleotide reductase (RNR) and thymidylate synthase (TSase), two enzymes necessary for the production of dNTPs. The produced dNTPs, along with thermostable Pfu DNA Polymerase, also included in the designed genetic circuit, allow for a low-cost PCR, with components not requiring cold storage. This procedure allows for an alternative approach for the production of basic PCR reagents. [Wiki](https://2021.igem.org/Team:Athens)https://static.igem.org/peertube/streaming-playlists/hls/b2f4c3ef-be09-4aff-922d-7fe7e13e87eb/3e0a4ff8-b287-4a42-8bc6-4e25a5e1f280-master.m3u8https://video.igem.org/videos/embed/o6GytWKqqEmWmFZyzEYgNB11420462021-10-29T04:13:51.051ZPfuPolymeraseRNRTSDNTPsAdAPTEDYES2021 Team PresentationsNOhttps://video.igem.org/w/xt2EqjgEjjXoyY81fy2mrvhttps://video.igem.org/lazy-static/thumbnails/2abac526-f04a-48a0-9e31-4f71e80c8717.jpgCHS_Missouri_US: AquaeSCOPE: Investigating our Water Distribution Systems (2021) - Team Presentat...**Title:** AquaeSCOPE: Investigating our Water Distribution Systems **Description:** While communities lacking access to safe and regulated water distribution need alternative water sources, a general rise in distrust and misinformation towards the microorganisms in municipal water has led many individuals to avoid safe tap water for the environmentally costly alternative of bottled water. In order to investigate this problem in our community, CHS_Missouri_US created a synthetic biology system that can examine tap and bottled water microbiomes. Utilizing shotgun metagenomic sequencing, we have built sequencing libraries targeting the V4 region of 16S rRNA genes extracted from the water samples. Unique molecular barcodes were attached to the samples to comprehensively identify the taxonomic profile and relative abundance of all genera within both samples. Research was then conducted to determine the pathogenic risk of the microbiota detected. The documentation for this process can be applied to characterize the microbiome of water sources globally and provide insight towards improved water contaminant testing. [Wiki](https://2021.igem.org/Team:CHS_Missouri_US)https://static.igem.org/peertube/streaming-playlists/hls/fed1679d-0fbd-4ac9-9278-178917b0c8ff/10b81973-08cc-4945-bb71-5f48a0dca9f4-master.m3u8https://video.igem.org/videos/embed/xt2EqjgEjjXoyY81fy2mrv10340572021-10-29T04:21:01.621ZAquaeSCOPEWaterQualityMetagenomicSequencingMicrobiomeYES2021 Team PresentationsNOhttps://video.igem.org/w/mwRvpK9wWDcvhp1wF9r1Tqhttps://video.igem.org/lazy-static/thumbnails/186dc4b7-703f-469c-8c43-11b180e5b29a.jpgNEFU_China: G-quadruplex-directed colorimetric virus detection system (2021) - Team Presentation ...**Title:** G-quadruplex-directed colorimetric virus detection system **Description:** The coronavirus disease 2019 (COVID-19) pandemic caused by the severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) severely struck the whole world. Rapid and convenient detection of pathogenic viruses can facilitate early detections and prevent large outbreaks of viral epidemics, including COVID-19. Here, we developed a G-quadruplex-based, highly specific, expedite and economic RNA virus detection system using SARS-CoV-2 as an example. The procedure includes recombinase-polymerase-mediated viral sequence amplification, nCas9-Phi29-mediated DNA nicking and displacement, rolling cycle amplification of G-quadruplex, and color development. All reactions can be carried out at ambient temperatures with limited requirement of instrument, which allows the method to be used under all circumstances. [Wiki](https://2021.igem.org/Team:NEFU_China)https://static.igem.org/peertube/streaming-playlists/hls/a645989a-9043-42df-aa99-51ced5f77bee/98c9703c-f207-4d65-9144-d9a2d17dbe61-master.m3u8https://video.igem.org/videos/embed/mwRvpK9wWDcvhp1wF9r1Tq91901592021-10-29T04:31:01.771ZVisibleDetectionVirusG-quadruplexYES2021 Team PresentationsNOhttps://video.igem.org/w/qoQ4mfUG1j2gYbuSUWvd8Khttps://video.igem.org/lazy-static/thumbnails/0782f627-2562-46f1-b3e3-6a180cae514f.jpgBJU_China: Indyego: application of bio-synthetic tyrian purple on semiconstructor (2021) - Team P...**Title:** Indyego: application of bio-synthetic tyrian purple on semiconstructor **Description:** Chemical production of indigo and its derivatives will result in heavy contamination of environment. In order to improve our environment, we use genetically modified <i>Escherichia coli</i> to produce derivatives of indigo such as 6,6-dibromoindigo, forming indigo dyes without generating large amounts of wastewater and harmful chemicals. In addition, in order to response to the green and sustainable development, we apply 6,6-dibromoindigo on dye-sensitized solar cell to release the heavy load on semiconductor production. Also, this method gives a new way on the synthesis biology and industry engineering. [Wiki](https://2021.igem.org/Team:BJU_China)https://static.igem.org/peertube/streaming-playlists/hls/c58b4eb2-f0c9-4bc5-a75c-414e95745859/2395b43f-fd34-413c-9caa-1d64e2d1ae6d-master.m3u8https://video.igem.org/videos/embed/qoQ4mfUG1j2gYbuSUWvd8K11960322021-10-29T04:50:39.454ZYES2021 Team PresentationsNOhttps://video.igem.org/w/fe9XBtX1pKiC2JBfXjHzkXhttps://video.igem.org/lazy-static/thumbnails/fee29205-c24b-4612-8dbe-55304ebaa2bb.jpgWilliam_and_Mary: Orthogonality (2021) - Team Presentation [English]**Title:** Orthogonality **Description:** Orthogonality, defined as the lack of unwanted interactions among parts of a circuit or between a circuit and host physiology, is a fundamental tenet of synthetic biology. While methodology for identifying undesirable interactions among circuit parts themselves is well studied, assessment of orthogonality between the circuit and the host physiology that goes beyond metabolic burden has received surprisingly little attention, with the few existing methods both costly and technically challenging. To address this universal need, W&M iGEM is developing an accessible toolkit for circuit-host orthogonality assessment in E. coli. This toolkit employs circuits that provide measurements not only of classic burden, but also more encompassing orthogonality markers identified by extensive analysis of RNA-Seq data. These measurements serve as inputs for our integrative, comprehensive mathematical model that provides the end user with overall orthogonality metrics, with the goal of enhancing the efficiency, functionality, and safety of all synthetic biology circuits. [Wiki](https://2021.igem.org/Team:William_and_Mary)https://static.igem.org/peertube/streaming-playlists/hls/7336219e-3f87-4500-80f5-440371610a11/2f6e8da5-af53-451c-95f0-db2e794041a0-master.m3u8https://video.igem.org/videos/embed/fe9XBtX1pKiC2JBfXjHzkX11890692021-10-29T05:05:09.099ZYES2021 Team PresentationsNOhttps://video.igem.org/w/csrvYTZcghdSj7idrbCYLzhttps://video.igem.org/lazy-static/thumbnails/6b49d500-3d7e-4826-8cab-c0bb5c397126.jpgGifu: Trans-cleavage endonuclease specific fatigue quantification system (TESTIFY ) (2021) - Team...**Title:** Trans-cleavage endonuclease specific fatigue quantification system (TESTIFY ) **Description:** Japan has often been reported as a stress-filled society in recent years. However, many Japanese neglect the excessive stress that can cause depression and other problems. We assume this is due to the difficulty of quantitative measurement of stress and that patients cannot be diagnosed by appearance whether they are suffering or not. Human Herpesvirus-6 (HHV-6) is a virus that infects 90% of humans in childhood and has the characteristic that it can remain latently in the human body for a lifetime. It has been reported that fatigue over a period of about a week reactivates the virus and is detected in saliva. Accordingly, we decided to create a system to quantify HHV-6 by using CRISPR based DETECTR assay (2018 Doudna et al.), based on our idea that the amount of the virus in saliva can be correlated with the stage of medium-term stress. [Wiki](https://2021.igem.org/Team:Gifu)https://static.igem.org/peertube/streaming-playlists/hls/5cc596b0-e071-45c6-8da2-52f5ee7a1659/b7796aba-7d10-447f-95ab-2f288c0edd0b-master.m3u8https://video.igem.org/videos/embed/csrvYTZcghdSj7idrbCYLz11440342021-10-29T05:13:48.769ZYES2021 Team PresentationsNOhttps://video.igem.org/w/uAeN2DiyJvUHCfZQGnJQ8shttps://video.igem.org/lazy-static/thumbnails/b2afa4e9-25ce-43fe-8694-66049f3f34e3.jpgQHFZ: Tyrian Purple Producer (2021) - Team Presentation [English]**Title:** Tyrian Purple Producer **Description:** Tyrian purple, mainly composed of 6,6'-dibromoindigo (6BrIG), is an ancient dye extracted from sea snails and was recently demonstrated as a biocompatible semiconductor material. However, its synthesis remains limited due to uncharacterized bio synthetic pathways and the difficulty of regiospecific bromination. Here, we introduce an effective 6BrIG production strategy in Escherichia coli using tryptophan 6-halogenase SttH, tryptophanase TnaA and flavin-containing monooxygenase MaFMO. After our transformation, E. coli will become a producer of tyrian purple, and it has been proved to be used as a biological dye. [Wiki](https://2021.igem.org/Team:QHFZ)https://static.igem.org/peertube/streaming-playlists/hls/e787abd7-dfda-4342-9bcc-efa9949d22d0/f6eebe1e-c1fe-404a-9880-fd0e02135b04-master.m3u8https://video.igem.org/videos/embed/uAeN2DiyJvUHCfZQGnJQ8s12000142021-10-29T05:40:51.513ZYES2021 Team PresentationsNOhttps://video.igem.org/w/esX8xLhsKDP6dMroanFdKKhttps://video.igem.org/lazy-static/thumbnails/c5be30b0-b94b-4f69-b017-a1ba1ad233ea.jpgTHIS-China: Dental Plague Detection (2021) - Team Presentation [English]**Title:** Dental Plague Detection **Description:** Dental plaque is an ecological environment in which bacteria grow, reproduce, decay, and carry out a series of metabolic activities. In this project, an E. coli biosensor is built to activate the phosphorylation of ComE membrane protein and ComD protein in sensor cells and activate the downstream CotA gene to cause color degradation. At the same time, we also try out different chromoproteins that directly produce the color and enable instrument-free detection. This sensor cell uses short-length peptide CSP secreted by Streptococcus mutans as a signal to detect the amount of S. mutans in the patient's mouth. To demonstrate this, contactless cell-free system hardware is designed, which the customers can use the oral rinse to collect the sample and put into our hardware to see the color is shown. The product will therefore be portable and reasonably priced, allowing more customers to have the ability and willingness to purchase. [Wiki](https://2021.igem.org/Team:THIS-China)https://static.igem.org/peertube/streaming-playlists/hls/6d0a1da1-d788-4e3e-b862-2ab7771e09a1/9d719687-ec33-4a5f-a06a-a6776cfb42c5-master.m3u8https://video.igem.org/videos/embed/esX8xLhsKDP6dMroanFdKK11540162021-10-29T05:54:56.933ZYES2021 Team PresentationsNOhttps://video.igem.org/w/cJpDKd6XuiWsdx6oNpi8z6https://video.igem.org/lazy-static/thumbnails/18b2d63c-6fa7-4c2a-a194-2ee2b946e749.jpgSHSBNU_China: Commercially Adoptable Reusing Option for Luxurious IoNs in Efflue... (2021) - Team...**Title:** Commercially Adoptable Reusing Option for Luxurious IoNs in Effluents (CAROLINE) **Description:** With the aggravating problem of precious metal profligacy, a low-cost reusing device must be developed. In our project, we use Ag+ aptamers to demonstrate the possibility of using ion specific aptamer connected to fusion proteins that are bound cellulose to capture and release silver ions in water. [Wiki](https://2021.igem.org/Team:SHSBNU_China)https://static.igem.org/peertube/streaming-playlists/hls/5f0056c2-aed0-4b94-8c82-4ffe6d04ec53/187a903a-abec-4755-aa8e-2d77d13b5a7e-master.m3u8https://video.igem.org/videos/embed/cJpDKd6XuiWsdx6oNpi8z697901322021-10-29T06:15:38.258ZYES2021 Team PresentationsNOhttps://video.igem.org/w/nUXCj9EukQX7qN85KcZ7Hohttps://video.igem.org/lazy-static/thumbnails/3373d746-6cd9-41d5-91ac-833cab286381.jpgHK_SSC: Biosynthesis of Valerolactam by Synechococcus elongatus UTEX 2973 (2021) - Team Presentat...**Title:** Biosynthesis of Valerolactam by Synechococcus elongatus UTEX 2973 **Description:** Lactams are family of cyclic amides widely used in the synthesis materials including nylon and piperidines used in drugs. Traditionally, lactams are synthesized through energy-intensive petrochemical methods. Here, we describe a method using Synechococcus elongatus UTEX 2973 as a chassis for the production of -valerolactam. A feedback insensitive aspartate kinase (AK) is used to achieve overproduction of lysine. Lysine is then oxidized to -amino-valeramide by L-Lysine monooxygenase (DavB), which is further hydrolyzed to -aminovalerate (5-AVA) by 5-aminovaleramide amidohydrolase (DavA). The resulting 5-AVA is cyclized to form -valerolactam. A shuttle vector with the feedback insensitive AK, davB and davA is integrated to S.elongatus UTEX 2973 through the INTEGRATE system, a previously described CRISPR-transposon system. Since reported cyclases for the cyclization of 5-AVA to -valerolactam are not efficient, an efficient cyclase is also designed using computational analysis. [Wiki](https://2021.igem.org/Team:HK_SSC)https://static.igem.org/peertube/streaming-playlists/hls/b174de62-a2b9-400f-b843-ef7b87006d30/23a3376c-247d-474b-b18a-6e124137bbfd-master.m3u8https://video.igem.org/videos/embed/nUXCj9EukQX7qN85KcZ7Ho110501182021-10-29T06:37:06.189ZYES2021 Team PresentationsNOhttps://video.igem.org/w/2vACp6cZJ5Y5tqvXrReWNwhttps://video.igem.org/lazy-static/thumbnails/f035da1f-a463-4c0d-9688-850fbeaad5aa.jpgBJEA_China: Beneco (2021) - Team Presentation [English]**Title:** Beneco **Description:** Plastics are widely used in the world because of its durability. Polyethylene terephthalate (PET) is one of the most commonly used plastics. Generally, there are 3 methods for PET recycling including physical, chemical, and biological recycling. However, physical and chemical recycling both have limitations,such as the inability to achieve closed-loop recycling and cause secondary pollution. Therefore, biological recycling seems to be a sustainable development approach. Research published on Nature found a mutant LCC (mLCC) which is the most efficient enzyme that can degrade PET. Base on the facts, our group decides to enhance the activity of mLCC by proceeding two approaches, The first is constructing a fusion protein of mLCC and hydrophobins to enhance PET adsorption. The second is using the technique of Bacillus subtilis cell surface display to construct a whole-cell biocatalyst which can improve the stability of enzymes and reduce costs. [Wiki](https://2021.igem.org/Team:BJEA_China)https://static.igem.org/peertube/streaming-playlists/hls/0c3b0c48-4986-4efc-acf3-ee740e4eef1a/857fadd5-4952-4597-8797-9b92b4465014-master.m3u8https://video.igem.org/videos/embed/2vACp6cZJ5Y5tqvXrReWNw11630632021-10-29T06:29:40.875ZHydrophobinPlasticBacillusSubtilisMLCCYES2021 Team PresentationsNOhttps://video.igem.org/w/6dQW1div7134gq2rkRBKV3https://video.igem.org/lazy-static/thumbnails/2be03dbf-a017-4c5d-bda4-d11a99b92537.jpgLZU-CHINA: Development of CRISPR-Cas13d as a SARS-CoV-2 antiviral Strategy by ta... (2021) - Team...**Title:** Development of CRISPR-Cas13d as a SARS-CoV-2 antiviral Strategy by targeting ACE2 **Description:** Currently, the world is still faced with the COVID-19 pandemic caused by novel coronavirus(SARS-CoV-2) which urgently requires flexible and targeted protection measures. The spike protein on its surface binds to receptors called ACE2 and then enters the cell through endocytosis. Inhibiting the expression level of ACE2 is considered to be an effective treatment for COVID-19. CRISPR-Cas13d is an RNA-guided ribonuclease that targets ssRNA. The design of gRNA does not need to consider specific adjacent motif. We select human embryonic kidney cells (HEK293T) to establish ACE2 stable transfection lines and lentivirus with novel coronavirus spike protein is used as pseudovirus. Through bioinformatics screening of crRNA pool for ACE2 conserved sequence, the lentivirus /CRISPR-Cas13d system was constructed. The system is designed to knock down the mRNA of ACE2 in cells, which leads to a decrease of ACE2 on cell surface. Thus, entry of the pseudovirus into cells is inhibited. [Wiki](https://2021.igem.org/Team:LZU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/2a48c5fd-8e8d-4787-91f0-12616cb7f038/6f9cab82-7b84-4ef1-8c8f-d10148733ff6-master.m3u8https://video.igem.org/videos/embed/6dQW1div7134gq2rkRBKV310430522021-10-29T06:05:39.233ZTherapeuticsSARS-CoV-2CRISPR-Cas13dYES2021 Team PresentationsNOhttps://video.igem.org/w/s1XC14e9uAskqSx8UTZguNhttps://video.igem.org/lazy-static/thumbnails/9b7098b0-6f9f-47e0-979d-a03b6d4300fd.jpgXHD-Wuhan-Pro-China: Sober up: enhanced degradation of alcohol and acetaldehyde ... (2021) - Team...**Title:** Sober up: enhanced degradation of alcohol and acetaldehyde in human through E. coli Nissle 1917 **Description:** Our project aims to achieve enhanced degradation of alcohol and acetaldehyde in human small intestines by constructing a probiotic that contains the adh gene for producing ADH, and the ald gene for producing ALDH. Besides, we add the nadE gene for NAD kinase and nox for NADH oxidase. These two enzymes promote the production of NAD+ and balances the NAD+/NADH ratio which is disturbed by the metabolism of ethanol and acetaldehyde to ensure adequate energy supply to the reactions. Alcohol is known to bring great damage to the organs, especially the liver. Worse, many East Asians carry mutated genes that result in even more accumulation of acetaldehyde, a toxic substance. According to WHO, three million people worldwide die from harmful use of alcohol every year, which represents 5.3 % of all deaths., Therefore, we believe that alcohol poisoning is a serious issue and should be resolved as soon as possible. [Wiki](https://2021.igem.org/Team:XHD-Wuhan-Pro-China)https://static.igem.org/peertube/streaming-playlists/hls/d2afe1f4-8d3a-42ed-ad8b-78bf4058cc7a/059e0f73-f31f-485b-b4a5-229a3ba835c7-master.m3u8https://video.igem.org/videos/embed/s1XC14e9uAskqSx8UTZguN10160202021-10-29T06:45:43.078ZYES2021 Team PresentationsNOhttps://video.igem.org/w/kki9jvwDeqB9tomxBKQoz3https://video.igem.org/lazy-static/thumbnails/019818e4-992d-46e0-83c8-c0541ffd068f.jpgSYSU-Software: Phoebus (2021) - Team Presentation [English]**Title:** Phoebus **Description:** Currently, there lack of approaches to precisely control the bio-chemical process in target cells. Non-neural optogenetics is promising, but there is no universal workflow for designing a fusion protein. So we present a new workflow for designing the so-called opto-controllable elements which is build with three basic parts: opto-switch, linker, and target protein, and build a software platform to automatically perform this workflow. The core module of our software is called opto-controllable elements designer, it has a database that collect detailed information about natural opto-switches, a linker database, a structure predict algorithm, and a protein activity evaluator. Theoretically, with opto-controllable element designer, every bio-chemical process can be controlled with light. We also build two supplementary modules based on the core module, one for controlling cascade reaction rate with light, and one for controlling gene expression level with light. [Wiki](https://2021.igem.org/Team:SYSU-Software)https://static.igem.org/peertube/streaming-playlists/hls/9c8f54c8-988e-4f92-bae9-9c4e76199664/889cea13-55a4-46aa-ac87-e72f6f84c12e-master.m3u8https://video.igem.org/videos/embed/kki9jvwDeqB9tomxBKQoz311970432021-10-29T07:20:33.462ZNon-NeuronalOptogeneticsPlatformYES2021 Team PresentationsNOhttps://video.igem.org/w/6bDTG4QhdF6kQdwGgrwWCKhttps://video.igem.org/lazy-static/thumbnails/f37d35d8-dc6a-4454-8e62-995b840367d6.jpgNYC_B1O: Development of Targeted wild-type Alpha-synuclein Derivatives for Treat... (2021) - Team...**Title:** Development of Targeted wild-type Alpha-synuclein Derivatives for Treatment and Prevention of Parkinson s Disease **Description:** In Parkinson s disease (PD) patients, misfolded alpha-synuclein (aSyn) forms protein inclusions (Lewy bodies) inside neurons, causing neuronal degeneration and symptoms of the disease. Previous studies have shown that increasing the number of chaperon proteins inside the cells or boosting the levels of autophagy, reduces the amounts of misfolded aSyn inclusions. The goal of this project is to target these two processes specifically to the misfolded aSyn instead of indirectly tinkering with cell metabolism. Specifically, the chaperon HSP70 is fused to wild-type aSyn (WT-aSyn). This fusion protein will interact directly with misfolded aSyn converting it into the functional conformation. In the second design, a hydrophobic domain and the LC3-interacting region of SQSTM1 are fused to the WT-aSyn. This fusion protein will drive autophagic membranes to incorporate and degrade misfolded aSyn. Lewy bodies are simulated and monitored using a PD-associated aSyn mutant tagged with the green fluorescent protein. [Wiki](https://2021.igem.org/Team:NYC_B1O)https://static.igem.org/peertube/streaming-playlists/hls/29fa7b77-a403-41ee-8300-2465c1fc6e8b/c08d0a4d-ca94-4940-89e7-886f6c1d380d-master.m3u8https://video.igem.org/videos/embed/6bDTG4QhdF6kQdwGgrwWCK11840422021-10-29T07:30:11.625ZYES2021 Team PresentationsNOhttps://video.igem.org/w/jQiupaHJcjofYH22cBhFQvhttps://video.igem.org/lazy-static/thumbnails/33001303-37b0-4269-bf7f-cb56a00ffcb3.jpgHK_CPU-WFN-WYY: Project SSS (2021) - Team Presentation [English]**Title:** Project SSS **Description:** Inspired by Fast Fashion, which is a threat to the environment at disposal, we came up with the idea of utilizing biodegradable silk . In this project, E. coli BL21 is aimed to be engineered to produce a protein named spidroin, which is the basic unit of spider silk. Masp1 and Masp2 from dragline, flagelliform silk protein from capture spiral silk and pyriform silk protein (PiSp) from piriform silk are planned to be manufactured. In the future, the mechanical properties of silk products, like strength, will be adjusted by controlling the proportion of spidroin with different toughness and elasticity. Thus, we hope to obtain spidroin with different properties to cater for different needs, like making clothes or fishing line, hence bringing an environmentally friendly solution to Fast Fashion disposal. [Wiki](https://2021.igem.org/Team:HK_CPU-WFN-WYY)https://static.igem.org/peertube/streaming-playlists/hls/9882f9a7-cf3d-4a8d-9ef7-0051a0e356c9/93089d36-6761-4923-9e5b-d833f3d7e773-master.m3u8https://video.igem.org/videos/embed/jQiupaHJcjofYH22cBhFQv9770182021-10-29T07:10:20.888ZYES2021 Team PresentationsNOhttps://video.igem.org/w/dPcTYWgFNdDYqo1j3SMggohttps://video.igem.org/lazy-static/thumbnails/911a0994-43d4-4c91-936f-37d94e125b11.jpgUNILausanne: Aprifreeze biological treatments to protect apricot trees from fros... (2021) - Team...**Title:** Aprifreeze biological treatments to protect apricot trees from frost damage **Description:** Late spring freezes cause frost damage in plants, which results in important crop losses, notably for apricots in the Swiss region Valais. When the temperatures drop below zero, ice crystals form and destroy sensitive plant tissues. This problem is exacerbated by Pseudomonas syringae syringae, a common pathogen of apricot trees producing an ice-nucleation protein that promotes ice crystal formation. Our project aims to find biological treatments to protect apricot trees from frost damage. We pursue three different combinable approaches. Firstly, we engineer Escherichia coli to overproduce antifreeze proteins, which we purify and spray onto the plants, so that they bind to ice crystals and inhibit their growth. Secondly, we also produce tailocins, bactericidal protein complexes, to specifically kill P. syringae. Lastly, we want to use a phage that delivers CRISPR/Cas9 and a guide RNA into P. syringae on the plants to delete the gene coding for the ice nucleating protein. [Wiki](https://2021.igem.org/Team:UNILausanne)https://static.igem.org/peertube/streaming-playlists/hls/67c4f3d2-264f-4351-9851-7c4108f65880/a0361838-d93c-4b88-938c-38c6fc7692ef-master.m3u8https://video.igem.org/videos/embed/dPcTYWgFNdDYqo1j3SMggo109501572021-10-29T07:40:27.845ZYES2021 Team PresentationsNOhttps://video.igem.org/w/gUMvvAgJ6breyM5SfofBoJhttps://video.igem.org/lazy-static/thumbnails/ccce904c-b919-4617-a724-4f59ef4f25e4.jpgTJUSLS_China: PETAres--- PETase with improved thermal stability (2021) - Team Presentation [English]**Title:** PETAres--- PETase with improved thermal stability **Description:** Discarded PET in the environment has caused serious ecological and health problems at present. Enzymatic recycling of PET has been extensively investigated in the past 20 years. PETase is a novel PET-degrading enzyme with the ability to degrade the highly crystallized PET. However, the heat-labile property seriously hinders its industrial applications. To over this limitation, we firstly rationally designed several PETase mutants through our combine bioinformatics strategies. Then we cloned and expressed these mutant genes by using the E. coli system. We next purified all the expressed PETase mutants and tested their thermostability at several conditions. We found 7 of PETase mutants with increasing thermostability. Excitingly, the enzyme activity of one mutant was 163 times that of the wild-type PETase at 60 C that was 20 C higher than the optimum temperature of the wild-type PETase. Our project sheds light on the industrial application of PETase. [Wiki](https://2021.igem.org/Team:TJUSLS_China)https://static.igem.org/peertube/streaming-playlists/hls/80d7cd3e-4fe7-4dc3-bb65-81211bd7f8e2/b13d132d-38a8-4ded-b4fe-4af05f33bab0-master.m3u8https://video.igem.org/videos/embed/gUMvvAgJ6breyM5SfofBoJ11960322021-10-29T07:49:15.629ZPETaseImprovePartsEnvironmentYES2021 Team PresentationsNOhttps://video.igem.org/w/kMgjxa2Ly979wwGSZf8oZbhttps://video.igem.org/lazy-static/thumbnails/871b9de0-fa79-43a4-b066-0353939358ce.jpgGCGS_China: Fish Hola- An aptamer based lateral flow strip for rapid detection o... (2021) - Team...**Title:** Fish Hola- An aptamer based lateral flow strip for rapid detection of fish spoilage. **Description:** Nowadays, consumers' demand for fresh fish is sharply increasing. In the process of cultivation, transportation or storage and the spoilage caused by microbial invasion will affect the health of the fish itself and consumers. Pseudomonas Aeruginosa is an important pathogen of fish, which can lead to corruption of fish and health problems of consumers. In order to reduce these risks demonstrated, a rapid detection of corruption is needed. Our project aimed to use structure switching fluorescence method to verify the existing aptamer found in papers that specifically bind AHLs, the quorum sensing signals of P.aeruginosa. After the verification, we found the aptamers can specifically bind to AHLs based on which we successfully constructed an aptamer-based lateral flow test strip. At last, we accomplished the final version of the test trips that was more portable, rapid and efficient for practical application scenarios. [Wiki](https://2021.igem.org/Team:GCGS_China)https://static.igem.org/peertube/streaming-playlists/hls/a02f8b94-5daf-4fdb-b8bc-c54f8feec324/c36f72e1-5acb-48c8-902c-0b53c45f2a22-master.m3u8https://video.igem.org/videos/embed/kMgjxa2Ly979wwGSZf8oZb11770422021-10-29T08:05:52.792ZPseudomonasAeruginosaFishCorruptionAptamerBasedLateralFlowStripFoodDetectionFoodSafetyYES2021 Team PresentationsNOhttps://video.igem.org/w/vuemacDz4pD8Rd6VscfRkDhttps://video.igem.org/lazy-static/thumbnails/428db0f3-537c-4197-b54c-2945b6645a63.jpgNEU_CHINA: Environmental multivirus detection based on PmrCAB and LuxI/LuxR quor... (2021) - Team...**Title:** Environmental multivirus detection based on PmrCAB and LuxI/LuxR quorum sensing system. **Description:** In this study, we developed an environmental multivirus detection device based on engineered E. coli to capture coronavirus, such as SARS-CoV-2, MERS-CoV and HCoV-229E, to spark fluorescence reporter gene. The PmrCAB system derived from Salmonella was recombined onto the surface of E. coli, and the Fe(III) recognition site of PmrB was replaced with the receptor of targeted coronavirus. Therefore, the bacteria can capture coronavirus via binding to their receptors and transport signaling to the downstream components. LuxI/LuxR quorum sensing system from E. coli and Hrp amplifier from Pseudomonas syringae were used to enhance the sensitivity and output signal. In addition, we also develop an improved air sampler to enrich nanoparticle in air onto engineered E. coli. The implementation of the environmental multivirus detection would be helpful for establish a preventive system in public place, such as hospital and super market. [Wiki](https://2021.igem.org/Team:NEU_CHINA)https://static.igem.org/peertube/streaming-playlists/hls/eeca128a-9adc-4ce0-83fd-a6f541d89237/a5c5c015-ff94-4534-a7f1-704d6888c759-master.m3u8https://video.igem.org/videos/embed/vuemacDz4pD8Rd6VscfRkD9580302021-10-29T08:18:34.011ZDIAGNOSTICSCHINAYES2021 Team PresentationsNOhttps://video.igem.org/w/1LQsizfgrXm9cHvWZHoKmXhttps://video.igem.org/lazy-static/thumbnails/f365cdde-f52d-4689-a7d6-21e586bda321.jpgRochester: Bio-Spire: A novel diagnostic device for the continuous monitoring of... (2021) - Team...**Title:** Bio-Spire: A novel diagnostic device for the continuous monitoring of biomarkers in sweat **Description:** The 2021 University of Rochester Team Bio-Spire is manufacturing a wearable biosensor to diagnose sepsis using biomarkers found in sweat. Sepsis is a condition caused by an overwhelming immune response to infection. In the USA alone, at least 1.7 million adults develop sepsis yearly and nearly 270,000 die. We are storing DNA-encoding aptamers for sepsis-related biomarkers in Escherichia coli, synthesizing them in vitro, and developing a sleeve-like biosensor that incorporates these aptamers, graphene, electrodes, and microfluidics to monitor the changing levels of relevant biomarkers in patients. Mathematical modeling is used to predict the concentrations of these biomarkers in blood based on the sweat samples, and a corresponding software tool will display warnings of the patient s elevated sepsis risk. Our team is centering topics of safety, inclusivity, and ethics in our project, and we are doing outreach activities with a variety of local organizations to demonstrate basic scientific principles to children. [Wiki](https://2021.igem.org/Team:Rochester)https://static.igem.org/peertube/streaming-playlists/hls/0642961e-fa5a-4345-8ed4-a9152f4bda6b/51770a06-9364-4f31-9e4b-dda451ea35d6-master.m3u8https://video.igem.org/videos/embed/1LQsizfgrXm9cHvWZHoKmX117901192021-10-30T00:50:40.302ZDiagnosticsAptasensorSepsisYES2021 Team PresentationsNOhttps://video.igem.org/w/eg4t9W5dof8AYoU4PK7zwdhttps://video.igem.org/lazy-static/thumbnails/e9bc4b47-064b-4d18-9516-85f5cf432091.jpgIstanbul_Tech: Enhanced Vitamin B12 Synthesis from the Waste Li-ion Batteries by... (2021) - Team...**Title:** Enhanced Vitamin B12 Synthesis from the Waste Li-ion Batteries by Using Scaffold System **Description:** Lithium-ion batteries are one of the most common batteries used in the 21st century, particularly for electric cars. When their lifespan is over, metals especially found in their cathodes, such as lithium, cobalt, and nickel, should be recycled both to avoid contamination and to regain these valuable materials for further usage. LiCoO2, their main component, can be separated by chemical/biological leaching process, and the remaining cobalt metal can be used for different purposes, in our case for vitamin B12 (a.k.a. cobalamin) synthesis. Although the demand for cobalamin has been increasing, its commercial production is still time-consuming and inefficient. Our purpose is to enhance the Vitamin B12 synthesis by improving the efficiency of rate limiting-step in the pathway via enzyme scaffold systems. Besides, by using the cobalt ions from waste lithium-ion batteries for B12 synthesis we aim to increase B12 production and decrease the waste of lithium-ion batteries. [Wiki](https://2021.igem.org/Team:Istanbul_Tech)https://static.igem.org/peertube/streaming-playlists/hls/6b6118b2-1162-44d0-9da7-9dfa99bc9a3c/60f65ac9-8826-423a-b9c6-293c58766002-master.m3u8https://video.igem.org/videos/embed/eg4t9W5dof8AYoU4PK7zwd11580382021-10-30T01:39:56.180ZYES2021 Team PresentationsNOhttps://video.igem.org/w/c6wJoaGf3C1CZFAaen1S3whttps://video.igem.org/lazy-static/thumbnails/d54113b0-e2a0-446b-94eb-6f758af68289.jpgIISER_TVM: Engineering Chimeric Chitinase with Enhanced Antifungal Activity (2021) - Team Present...**Title:** Engineering Chimeric Chitinase with Enhanced Antifungal Activity **Description:** Opportunistic fungal infections like mucormycosis, aspergillosis, and candidiasis have ravaged immunocompromised patients battling multiple comorbidities. Tackling these infections has been difficult due to a limited repertoire of expensive antifungal drugs and their side effects. Moreover, the rampant use of these limited numbers of drugs raises the alarming possibility of developing drug-resistant fungal strains. Chitinases are potent natural biocontrol agents against fungi. We aim to engineer chimeric chitinases with a specific combination of different chitin-binding and catalytic domains from wild-type chitinases that will have increased anti-fungal activity. The antifungal enzymes thus synthesized could be developed into effective therapeutic agents against invasive fungal infections. [Wiki](https://2021.igem.org/Team:IISER_TVM)https://static.igem.org/peertube/streaming-playlists/hls/59da2ebe-73b7-4e7c-b4b9-7f4538d73b4a/eae01d4b-c1db-4f7c-9dcf-5ecd07bd26bf-master.m3u8https://video.igem.org/videos/embed/c6wJoaGf3C1CZFAaen1S3w12000532021-10-30T02:15:14.207ZFungusTheraputicsChitinCoronavirusCovid19YES2021 Team PresentationsNOhttps://video.igem.org/w/aM5GWx7XEmrM6L1SyqUkpEhttps://video.igem.org/lazy-static/thumbnails/e7776355-71a6-4b8b-8be2-9312b58d30aa.jpgSDSZ_China: City Band-aid (2021) - Team Presentation [English]**Title:** City Band-aid **Description:** Building repair is crucial when it comes to ancient buildings, since cracking impacts hugely on buildings' durability (one of the most important features to be considered during construction). Our team, SDSZ_China, uses a new microbial technology, which has the advantages of green environmental protection as well as real-time remediation, to help fix this issue with its great potential for development. [Wiki](https://2021.igem.org/Team:SDSZ_China)https://static.igem.org/peertube/streaming-playlists/hls/4f2d9e20-80fa-44ec-b443-66673e13bf28/6aad1513-03be-4b6f-b14f-431ed95d6e73-master.m3u8https://video.igem.org/videos/embed/aM5GWx7XEmrM6L1SyqUkpE101401242021-10-30T02:49:42.455ZYES2021 Team PresentationsNOhttps://video.igem.org/w/ibWRLxaQjmzfW8xFw1vYW3https://video.igem.org/lazy-static/thumbnails/9ae4cd35-d961-4f76-b4fc-df0c30faa9c3.jpgAachen: Enzyme-based semi-specific DNA synthesis for long-term data storage (2021) - Team Present...**Title:** Enzyme-based semi-specific DNA synthesis for long-term data storage **Description:** In the last few years, DNA sequencing has developed rapidly while DNA synthesis still relies on the decades-old chemical phosphoramidite system. However, this process is toxic and has already reached its limit at around 200 bases. Thus, the demand for more environmentally friendly and effective novel approaches is evident. In this project, we report an enzymatic ssDNA synthesis system with terminal deoxynucleotidyl transferase (TdT). In each synthesis cycle, an unspecific number of nucleotides is incorporated. Our unique automated hardware can selectively attach nucleotides to immobilized primers in order to synthesize preset DNA sequences. We present a ternary system to encode and recover the information stored on DNA. This system enables the semi-specific approach, in which information is saved only in the transitions between bases, therefore specific synthesis is not necessary. This opens up a much more approachable and robust system that even allows adding proof-reading properties. [Wiki](https://2021.igem.org/Team:Aachen)https://static.igem.org/peertube/streaming-playlists/hls/8b329a37-339a-4714-ac76-772fb91947a6/4178c8a4-e77d-4148-9d8c-b921e70d1b97-master.m3u8https://video.igem.org/videos/embed/ibWRLxaQjmzfW8xFw1vYW3105903282021-10-30T03:15:16.724ZTdTDNAFutureStorageDataYES2021 Team PresentationsNOhttps://video.igem.org/w/uedfAmtaWECfijUDfp8bithttps://video.igem.org/lazy-static/thumbnails/331e7a5b-1957-4a0a-bdb2-17d097581c87.jpgHopkins: Symbiotic Bacterium Engineering for Treatment of Coral Disease (2021) - Team Presentatio...**Title:** Symbiotic Bacterium Engineering for Treatment of Coral Disease **Description:** Corals are threatened by human activity as they are the victims of rising ocean temperatures and habitat destruction. Certain species are also impacted by infection from pathogenic fungi one fungus in particular, Aspergillus sydowii, can cause the localized mass mortality of Gorgonian corals, commonly known as sea fans (Kim and Rypien). Previous iGEM projects have approached the issue of coral bleaching with the aim of preserving corals. Our goal is to engineer bacteria to fight Aspergillus infection of corals with minimal impact on other aspects of the ecosystem. We plan to engineer symbiotic bacteria (Endozoicomonas euniceicola) common to the affected coral species (Gorgonia ventalina) to secrete antifungal peptides after detection of an infection. As part of our proposed implementation we have developed a quorum sensing cell death circuit to be used in conjunction with hydrogel beads. This project is supported by feedback from stakeholders including NOAA, the Smithsonian, and Hopkins APL. [Wiki](https://2021.igem.org/Team:Hopkins)https://static.igem.org/peertube/streaming-playlists/hls/e4981a0f-a25f-4c26-99dc-946ee383e6e5/df1e5126-e18e-4dc9-93de-c38230fc4dab-master.m3u8https://video.igem.org/videos/embed/uedfAmtaWECfijUDfp8bit11990272021-10-30T03:32:50.942ZYES2021 Team PresentationsNOhttps://video.igem.org/w/8rnCAq45EUn5DTNe3LNyPrhttps://video.igem.org/lazy-static/thumbnails/cc92653e-0e83-4b62-bc58-78a0fb96511e.jpgSydney_Australia: Free Coli: Improving accessibility to synthetic biology by eng... (2021) - Team...**Title:** Free Coli: Improving accessibility to synthetic biology by engineering a naturally transformable Escherichia coli **Description:** Free Coli aimed to improve accessibility to synthetic biology by designing a genetically modified naturally transformable strain of Escherichia coli to produce a more affordable and efficient host organism that does not require chemical treatment or electroporation to become competent. Literature on natural transformation in E. coli and related bacterium was reviewed and experts were consulted to identify twenty-five putative natural transformation genes in A. baylyi for insertion into E. coli via a novel recombineering strategy for insertion of multiple gene clusters. K-means clustering used existing data on transcriptome concentration and promoter strength to model the optimal clustering of genes into eight <5kB DNA fragments. Bioinformatics analysis was conducted to assemble the genes into fragments with salicylate promoters and selectable markers. The wider community was engaged and consulted to affirm the project s purpose and align its future implementation with the UN s Sustainable Development Goal to ensure quality education for all. [Wiki](https://2021.igem.org/Team:Sydney_Australia)https://static.igem.org/peertube/streaming-playlists/hls/3c3ae538-cd55-4dfa-92a5-a119faaf6daf/ae20a569-951e-4ca2-88dd-a27627f19cfe-master.m3u8https://video.igem.org/videos/embed/8rnCAq45EUn5DTNe3LNyPr11200332021-10-30T03:50:08.974ZYES2021 Team PresentationsNOhttps://video.igem.org/w/hHww34zHSJmeb8Bu8Pb4Bahttps://video.igem.org/lazy-static/thumbnails/bf7f796d-ae09-4bf7-9079-80e6db00ac62.jpgGXU-China: Phage vector vaccine for tuberculosis (2021) - Team Presentation [English]**Title:** Phage vector vaccine for tuberculosis **Description:** Tuberculosis has been killing millions of people and still cannot be completely defeated. Based on the principle that phage could make bacteria lyse specifically, we proposed to develop a phage vector vaccine for tuberculosis. [Wiki](https://2021.igem.org/Team:GXU-China)https://static.igem.org/peertube/streaming-playlists/hls/875e853a-9f29-4a02-9146-0ab2aac0efc3/1bfa5570-23eb-4013-9e31-392fcfab70a8-master.m3u8https://video.igem.org/videos/embed/hHww34zHSJmeb8Bu8Pb4Ba11680552021-10-30T04:09:12.423ZYES2021 Team PresentationsNOhttps://video.igem.org/w/p6215bzErQ8x56BFDTsBkwhttps://video.igem.org/lazy-static/thumbnails/0aa54a96-9472-4ccd-873c-774962237404.jpgVirginia: Manifold: Protein Shells with Encapsulated DNA Scaffolds for Increasin... (2021) - Team...**Title:** Manifold: Protein Shells with Encapsulated DNA Scaffolds for Increasing Efficiency of Biosynthetic Pathways **Description:** Utilizing prokaryotic, biosynthetic processes to produce pharmaceuticals and commercially valued organic compounds provides a safer, greener, and more cost-effective alternative to traditional chemical synthesis. Unfortunately, metabolic flux imbalances along with biosynthetic pathway-chassis interactions complicate metabolic engineering and stymie an industry-scale shift to biosynthesis. To mitigate these complications, we have designed a platform technology known as Manifold that sequesters and spatially organizes synthetic, zinc finger-bound enzymes on dsDNA scaffolds inside bacterial microcompartments. Here we detail our progress toward a resveratrol-producing, proof-of-concept device built using the Manifold framework, and present adaptable models which further the utility of Manifold to metabolic engineers. Through the application of Manifold, the process of metabolic engineering is greatly simplified, marking a major step toward a less expensive and more sustainable means of global chemical production. [Wiki](https://2021.igem.org/Team:Virginia)https://static.igem.org/peertube/streaming-playlists/hls/baf5866a-d8c0-442f-896e-5368bfd736f8/bf4ce740-863e-4460-91b2-36bfa94e8f4b-master.m3u8https://video.igem.org/videos/embed/p6215bzErQ8x56BFDTsBkw10380212021-10-30T04:26:09.547ZYES2021 Team PresentationsNOhttps://video.igem.org/w/3t4d1R8Km3CMLRDaaYMWzzhttps://video.igem.org/lazy-static/thumbnails/ff1e7145-96ce-46e4-aa0b-5ed2190fabcf.jpgKEYSTONE: Rubber Eater on the biodegradation of rubber (cis-1,4-polyisoprene) (2021) - Team Prese...**Title:** Rubber Eater on the biodegradation of rubber (cis-1,4-polyisoprene) **Description:** In the enormous yet growing global rubber production, we see an urgent issue: waste rubber. By interviewing rubber recycling managers in China, we found that only 7% of 12945000 tons of rubber is recycled in 2020, meaning most rubber waste has either entered a landfill/open dump or an incinerator, both entail serious ecological/safety hazards. To combat this issue, we employed Latex Clearing Protein (LCP) as a means of rubber biodegradation. However, the implementation of LCP still faces many obstacles. To facilitate real-time rubber degradation, we introduced a signal peptide named hlyA that allows for the extracellular secretion of LCP, and for water solubility, we added a fusion protein named NusA. In addition, the signal peptide provides our project the potential for sustainable industrial-scale use. With improved efficiency, this project will become a promising and environmentally friendly rubber waste management method, hopefully contributing to the solution of this pressing global issue. [Wiki](https://2021.igem.org/Team:KEYSTONE)https://static.igem.org/peertube/streaming-playlists/hls/13f955e8-ec7b-40d8-88e5-f5ce3f649e1b/0c5e6d2a-c01a-4bee-a70b-22606a754e3b-master.m3u8https://video.igem.org/videos/embed/3t4d1R8Km3CMLRDaaYMWzz11560162021-10-30T04:45:01.983ZEnvironmentConservationRubberBiodegradationYES2021 Team PresentationsNOhttps://video.igem.org/w/fNGEKUwKGfTVjNURcE8Labhttps://video.igem.org/lazy-static/thumbnails/1837634c-2ef9-4208-b9e4-8053dddae9d0.jpgDUT_China: Artificially designed delicate modular enzymes system for enhanced PE... (2021) - Team...**Title:** Artificially designed delicate modular enzymes system for enhanced PET plastic degradation at mild temperature **Description:** Wide spreading and utilization of plastic polyethylene terephthalate (PET) in the world has caused serious environmental challenges and gained much attention. In response, microbe Ideonella sakaiensis was reported to be capable of secreting two efficient enzymes to deconstruct PET polymers in mild temperature. However, this two-enzyme system degradation capacity is highly limited by inhibition effects, diffusion of intermediates and PET surface physicochemical properties. Therefore, we design a delicate multicomplex enzyme system, in which short peptide tags (RIAD and RIDD) are applied to create scaffold-free modular enzymes assemblies. In order to effectively degrade microplastic PET particles, we construct enzymes of IsPETase and MHETase and protein hydrophobin in our complex system via scaffold modular part, which reveal higher catalytic efficiency in mild temperature. This work presents an innovative strategy to improve PET degradation via biosynthetic factories and artificially designed proteins system that do not exist in the nature. [Wiki](https://2021.igem.org/Team:DUT_China)https://static.igem.org/peertube/streaming-playlists/hls/77e537a3-d138-4c5d-a3dc-7e0fdcad1bdc/88f64d0c-9b4c-4c65-a6d0-9a4328246d58-master.m3u8https://video.igem.org/videos/embed/fNGEKUwKGfTVjNURcE8Lab10930482021-10-30T04:58:59.032ZEnvironmentYES2021 Team PresentationsNOhttps://video.igem.org/w/ukCvDUAa3BHntr8UbcjDJZhttps://video.igem.org/lazy-static/thumbnails/096cb7f5-6e06-474e-b349-2462be4ed8b1.jpgNJMU-China: Stairway to starlight:Maternal prevention and offspring treatment of... (2021) - Team...**Title:** Stairway to starlight:Maternal prevention and offspring treatment of autism induced by maternal infection during pregnancy **Description:** Autism is the fastest-growing developmental disability. According to American CDC, the prevalence of autism in the U.S. has increased from 1 in 68 births in 2010 to 1 in 54 births in 2020. However, to date, there is no effective drug to treat ASD. Apart from genetic factors, the potentially dangerous environmental factors to the maternal generation, such as Maternal immune activation(MIA) and Gestational diabetes mellitus (GDM), can also be the cause of ASD. According to the gut-brain axis theory, whether it is maternal immune activation or genetic factors, the etiologies of autism are all related to the gut microbiome. Children with ASDs are also what we call Children From the Star .Our project aims at building up a stairway to the starlight, using engineering probiotics to prevent autism caused by maternal infection during pregnancy and treat children, thus structuring a way to health for the Children From the Star . [Wiki](https://2021.igem.org/Team:NJMU-China)https://static.igem.org/peertube/streaming-playlists/hls/e57d83d5-9ddd-4ec8-9da2-df69eeada031/53bd743b-a29c-4bb7-9d7e-5058797ff496-master.m3u8https://video.igem.org/videos/embed/ukCvDUAa3BHntr8UbcjDJZ11980712021-10-30T05:16:25.026ZYES2021 Team PresentationsNOhttps://video.igem.org/w/p5nNx5cwtGJXgnhs44N2eQhttps://video.igem.org/lazy-static/thumbnails/7c567ac7-b085-4e3a-9399-14f97233d680.jpgTU-Eindhoven: Non-Invasive Monitoring of IBD using Genetically Engineered Bacter... (2021) - Team...**Title:** Non-Invasive Monitoring of IBD using Genetically Engineered Bacteria as Living Sensors **Description:** Inflammatory Bowel Disease (IBD) is a chronic inflammatory disorder of the intestine. Globally over 6 million people suffer from IBD, and this number keeps rising. The current monitoring procedure for this disease lacks specificity, resulting in unnecessary follow-up examinations that are invasive, expensive, and time-consuming, which calls for an alternative procedure. Our solution, IBDetection, consists of a pill that can be ingested orally by the patient and delivers live, safe, genetically engineered Escherichia coli BL21(DE3) to the intestine. These bacteria include a biorthogonal sensing cascade to detect tetrathionate an inflammation biomarker with high specificity, and in turn activates translation of acoustic reporter genes, resulting in the formation of gas vesicles in the bacteria. These gas vesicles can then be measured outside of the body using conventional ultrasound equipment. This method provides a cost-effective, easy-to-use solution to rule out unnecessary follow-up examinations in a specific and non-invasive manner using fast imaging methods. [Wiki](https://2021.igem.org/Team:TU-Eindhoven)https://static.igem.org/peertube/streaming-playlists/hls/bade99b5-bbdb-4bde-a185-151a1c65bd06/19265e37-6314-4596-8a71-5f4bae813fd5-master.m3u8https://video.igem.org/videos/embed/p5nNx5cwtGJXgnhs44N2eQ107701122021-10-30T06:15:50.167ZDiagnosticsNon-invasiveUltrasoundMonitoringIBDYES2021 Team PresentationsNOhttps://video.igem.org/w/a3eTG6aGe71EyJp1ciYTs1https://video.igem.org/lazy-static/thumbnails/6413a5cb-6d34-4aa5-9191-89202c53e3bb.jpgIonis_Paris: Cobatect (2021) - Team Presentation [English]**Title:** Cobatect **Description:** Vitamin B12 (VB12) deficiency is a common and prevalent condition which can engender neurological and hematological abnormalities. However, current measurements of VB12 level are usually erratic and lack sensitivity. Here, we offer a portable and easy-to-use bioelectronic sensor for assessing the VB12 level in the blood. This home health monitoring device is similar to those that evaluate blood sugar level, with finger-prick testing. Our biosensor uses a modified bacterial co-culture to produce electricity in the presence of VB12. More specifically, a genetically modified Escherichia coli carries a vitamin B12 riboswitch which controls the biosynthesis of lactate. The latter is subsequently metabolized by Shewanella oneidensis to produce a reducing potential. Shewanella oneidensis has the prodigious ability to reduce metal ions, so when it is in contact with an anode it is possible to create electricity. Your B12 levels needs to be kept in check? Use Cobatect ! [Wiki](https://2021.igem.org/Team:Ionis_Paris)https://static.igem.org/peertube/streaming-playlists/hls/49324bd7-3c37-4ccd-9432-d4967a447c40/987acd96-9903-44b5-9465-460473ca7b9c-master.m3u8https://video.igem.org/videos/embed/a3eTG6aGe71EyJp1ciYTs111750462021-10-30T07:10:56.578ZVitaminB12BiosensorYES2021 Team PresentationsNOhttps://video.igem.org/w/weUtBkMuYxbxsoPMqtu9B7https://video.igem.org/lazy-static/thumbnails/be7945d7-c280-4ba6-bf05-97d2c8a0f3c8.jpgTAU_Israel: Communique A generic platform for designing genes with selective act... (2021) - Team...**Title:** Communique A generic platform for designing genes with selective activity in microbial communities **Description:** Microbiomes include networks of microorganisms that share genetic information via horizontal gene transfer. Most bacteria in nature are organized in such interconnected communities; thus the ability to engineer microbiomes constitutes an important frontier for the field of synthetic biology. Effective engineering of microbiomes heavily relies on selectivity: the ability to make the desired changes (e.g. introducing new functions) to certain species but not others. Selectivity is also critical from a biosafety perspective as the introduction of genes into unwanted hosts can cause large ecological impacts. We have developed the first computational tool to selectively engineer microbiomes, along with experimental means to evaluate it. By addressing the main biophysical processes related to gene activity and expression, our software designs microbiome- specific plasmids that are expressed optimally in certain microorganisms while having impaired expression in others. Our tool can be applied to any plasmid and microbiome. [Wiki](https://2021.igem.org/Team:TAU_Israel)https://static.igem.org/peertube/streaming-playlists/hls/f4e32b16-390d-4a12-b2ac-942fdbac31e4/e2e4efb8-3514-4492-8ba4-2c673424be71-master.m3u8https://video.igem.org/videos/embed/weUtBkMuYxbxsoPMqtu9B71200012162021-10-30T08:20:16.254ZMicrobiomeHGTPlasmidSoftwareOptimizationYES2021 Team PresentationsNOhttps://video.igem.org/w/cCT8An3FXEsKcmJuTFRosShttps://video.igem.org/lazy-static/thumbnails/e172920e-1f8c-4c56-8deb-451a16e1f621.jpgBonn-Rheinbach: BioLan Protein-based extraction of rare earth elements from ores (2021) - Team Pr...**Title:** BioLan Protein-based extraction of rare earth elements from ores **Description:** Lanthanides form the majority of the highly important rare earth elements (REE) and possess outstanding catalytic and magnetic properties. REEs are essential in all fields of modern technology from automobility to medical diagnostics. The current REE mining is energy-intense and relies on many synthesized chemicals. We developed a protein-based process to increase sustainability and selectivity of REE mining. The bacterial protein lanmodulin (LanM) was heterologously produced in E. coli and purified in a novel, chromatography-free one-step method. LanM was added to an ore leachate to form an REE-LanM complex. After isolation of this complex, REE ions were released by pH reduction. Upon removal of LanM, this biological chelator was regenerated and a highly pure REE solution was obtained. Our project is characterized by iterative process optimization tailoring the approach to industrial application. Overall, it was demonstrated that the protein LanM can replace current chemical chelating agents in REE mining. [Wiki](https://2021.igem.org/Team:Bonn-Rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/5e3acfbf-bc0b-4dd8-8f21-0de93f652b26/f936751a-661d-471c-8325-6410d1a03e22-master.m3u8https://video.igem.org/videos/embed/cCT8An3FXEsKcmJuTFRosS11030292021-10-30T08:39:39.333ZLanModulinBiotechnologyInnovativeSustainableYES2021 Team PresentationsNOhttps://video.igem.org/w/oEKtTfamyrApr6k3LoaPc3https://video.igem.org/lazy-static/thumbnails/40a97b1a-7bd6-46a9-9e05-c56d8ea5c01e.jpgCTR_Alberta_Canada: Detecting oxybenzone via production of LacZ gene induced by ... (2021) - Team...**Title:** Detecting oxybenzone via production of LacZ gene induced by GEM protein in engineered S.cerevisiae **Description:** Oxybenzone is a chemical compound found in sunscreens that serves as an active ingredient to block ultraviolet (UV) rays. Oxybenzone contributes to coral bleaching by accumulating in coral tissues and reducing sunlight availability for photosynthetic organisms due to its UV-absorbing properties. Through the genetic engineering of Saccharomyces cerevisiae, oxybenzone concentration levels in water bodies can be detected. The estrogenic properties of oxybenzone allow it to bind to a synthetic fusion protein containing a human estrogen receptor which will result in the expression of the LacZ gene. This causes the enzyme beta-galactosidase to be produced and breakdown its substrate. This produces an electrochemical signal which can be measured using the Field-Ready Electrochemical Detector (FRED) and analyzed to determine oxybenzone concentration. This will allow for greater understanding of the issue of coral bleaching, and provide a tool to assess the impact of further steps being taken to protect these aquatic ecosystems. [Wiki](https://2021.igem.org/Team:CTR_Alberta_Canada)https://static.igem.org/peertube/streaming-playlists/hls/b7921c18-32b8-43fe-ab82-b8e623d26d64/6271473c-01bb-4661-92e9-e94aa3d5b531-master.m3u8https://video.igem.org/videos/embed/oEKtTfamyrApr6k3LoaPc311260432021-10-30T09:00:21.496ZYES2021 Team PresentationsNOhttps://video.igem.org/w/gFxM8e1WfE4TN8qwVfsmA2https://video.igem.org/lazy-static/thumbnails/12c09d2f-f9ab-447c-b9fa-6a915ce1b941.jpgCAU_China: SSR: Saline-alkaline Soil Restorer (2021) - Team Presentation [English]**Title:** SSR: Saline-alkaline Soil Restorer **Description:** Saline-alkaline soil, containing heavy soluble salt and alkali, can endanger the environmental safety and agricultural production, and thus is a global concern. -PGA, a polymer formed by glutamic acid, is an emerging solution for this problem because it can prevent soil moisture from evaporating, help to build ideal soil structure, absorb the exchangeable sodium ion and act as buffer in soil pH changes. Aimed to restore saline-alkaline soil, above all, we engineered Corynebacterium glutamicum to make it produce -PGA based on genes from Bacillus subtilis. Secondly, to harvest -PGA as much as possible, we modified genes in oxaloacetic acid node and -ketoglutarate node to yield more glutamic acid, the raw material for -PGA. Finally, in view of biosafety, we designed a kill switch that can only be turned on when both the ionic strength and pH of the soil decrease to an expected level. [Wiki](https://2021.igem.org/Team:CAU_China)https://static.igem.org/peertube/streaming-playlists/hls/7efeabbb-20ca-4996-aebd-d3d63f919615/5587ba0b-1562-44cb-a9cc-a74726fffb98-master.m3u8https://video.igem.org/videos/embed/gFxM8e1WfE4TN8qwVfsmA210970702021-10-30T10:11:50.053ZSalineAlkaliSoilAgricultureEnvironmentYES2021 Team PresentationsNOhttps://video.igem.org/w/6rhors5Z6pBMYPYmHDp44ghttps://video.igem.org/lazy-static/thumbnails/fcc9cdd1-f24d-44cb-b3b2-15da4b68b51b.jpgNYU_Abu_Dhabi: Rapid detection of fungal pathogens based on electrokinetic conce... (2021) - Team...**Title:** Rapid detection of fungal pathogens based on electrokinetic concentration and CRISPR-Cas 12a technology. **Description:** Chytridiomycosis is a fungal disease that has devastated amphibian populations, leading to substantial losses in biodiversity. Caused by the infection of the fungi Batrachochytrium dendrobatidis (Bd) or Batrachochytrium salamandrivorans (Bsal), chytridiomycosis causes rapid decline and extinction of amphibian populations. Both species are responsible for fatal disease; however, Bd infects frogs and toads, while Bsal generally affects salamanders. Amphibians rarely display visible symptoms, limiting diagnosis of chytridiomycosis to post-mortem examination, which highlights the need for diagnostic devices. Current methods for identification of the pathogen are laboratory equipment-dependent, time-consuming, and expensive which contributes to the spread of infection. Thus, our team is developing a diagnostic device that allows for rapid detection of the two disease-causing fungi in a field setting. To bypass the time consuming DNA amplification step, we use electrokinetic concentration of the extracted DNA, followed by a CRISPR-Cas 12a complex binding to the Bd or Bsal target DNA for detection. [Wiki](https://2021.igem.org/Team:NYU_Abu_Dhabi)https://static.igem.org/peertube/streaming-playlists/hls/2c0562e5-ed03-4943-a56d-7249e7e2dfb1/9b99aa90-5ff7-4f28-90f6-0c5b974c81c3-master.m3u8https://video.igem.org/videos/embed/6rhors5Z6pBMYPYmHDp44g8510152021-10-30T10:35:21.760ZYES2021 Team PresentationsNOhttps://video.igem.org/w/qwiWPpuMWC19v1MDMBmhZQhttps://video.igem.org/lazy-static/thumbnails/6cc04aa6-d799-4faf-a3e8-7446382e4247.jpgWageningen_UR: Cattlelyst - Reducing the ecological hoofprint of cattle (2021) - Team Presentatio...**Title:** Cattlelyst - Reducing the ecological hoofprint of cattle **Description:** Our planet suffers from a large excess of reactive nitrogen, impacting local and global ecosystems. In the Netherlands, almost 50% of total nitrogen emissions originate from the cattle industry, mainly in the form of ammonia. Additionally, cattle naturally emit the potent greenhouse gas methane, contributing to global warming. Experts informed us that currently, no combined solution exists to both threats. Therefore we have developed Cattlelyst, a biofilter for cattle stalls targeting ammonia and methane emissions. Cattlelyst relies upon a synthetic co-culture of two non-pathogenic bacterial species that remove these harmful gasses. We modelled and established ammonia conversion in Pseudomonas putida alongside engineering Escherichia coli to consume methane. Containment of the bacteria in the biofilter is ensured by a combination of auxotrophy and two safety circuits. Thanks to these features, Cattlelyst provides a biological, animal-friendly and biosafe solution to reduce the ecological hoofprint of the livestock sector. [Wiki](https://2021.igem.org/Team:Wageningen_UR)https://static.igem.org/peertube/streaming-playlists/hls/c696b334-4d05-46e2-94bd-77084cc3328a/99dd660f-b84d-411f-a51e-fbbf74050e02-master.m3u8https://video.igem.org/videos/embed/qwiWPpuMWC19v1MDMBmhZQ116206892021-10-30T10:57:54.475ZLivestockEnvironmentBiofilterAmmoniaMethaneYES2021 Team PresentationsNOhttps://video.igem.org/w/mXwzWZnVvCvoeJz7PgTv6ehttps://video.igem.org/lazy-static/thumbnails/0a83a3c7-413e-4525-a60d-86c6027da3de.jpgCCA_San_Diego: Collagene (2021) - Team Presentation [English]**Title:** Collagene **Description:** Collagen has countless applications, from cosmetics to supplements to prosthetics, and is useful especially in regenerative medicine as a biomaterial, constituting skin meshes, bone grafts, and artificial organs. While most commercial collagen come from bovine sources, the derivation process is both unethical and poses significant health concerns such as arsenic poisoning and zoonotic diseases. To combat these environmental and ethical concerns, as well as extend research into recombinant collagen technology, Collagene was developed, making functional triple-helical collagen for regenerative medicine. A bacterial collagen called Scl2 was expressed in yeast and E. coli via gap repair cloning in order to create a blank template of collagen that is highly adaptable to various research uses. In addition, we tested a wide variety of biomedical gels and threads that could be used during surgery or woven to replace blood vessels, developing our own wet-spinner for Collagene threads. [Wiki](https://2021.igem.org/Team:CCA_San_Diego)https://static.igem.org/peertube/streaming-playlists/hls/a9b78787-ef5b-408e-bf11-269e09078c8b/b1627977-b82b-4cd8-a6f9-7ac0bc88811d-master.m3u8https://video.igem.org/videos/embed/mXwzWZnVvCvoeJz7PgTv6e99401302021-10-30T11:07:23.626ZYES2021 Team PresentationsNOhttps://video.igem.org/w/u7G417TE236w2TggNypS8khttps://video.igem.org/lazy-static/thumbnails/20c92931-a81c-4c13-9d10-6f31f1ed6d00.jpgWHU-China: Acneraser (2021) - Team Presentation [English]**Title:** Acneraser **Description:** Acne, a common skin disease generally related to pores being blocked by sebum and Propionibacterium acnes proliferating in such an anaerobic environment, almost bothers everyone but has no particularly effective treatment. To address this long-standing challenge, our project aims to develop a novel acne therapy. We engineered a safe, nutritionally deficient Escherichia coli strain, which could decompose fatty acids in high efficiency and secrete strain-specific bacteriocin, for ameliorating sebum blocking and inhibiting P.acnes growth, respectively. In addition, a fatty acids-sensing system was constructed to enable precise therapeutics actuation only in appropriate conditions, minimizing the side effects of gene leakage expression. Furthermore, a high-throughput microfluidic chip was manufactured for accelerating the experimental cycle of directed evolution to optimize the fatty acids-sensing system. It is anticipated that the Acneraser will build new bridges between acne research and synthetic biology, letting this promising and exciting scientific field enhance everyone's life. [Wiki](https://2021.igem.org/Team:WHU-China)https://static.igem.org/peertube/streaming-playlists/hls/e3af0722-b6fd-45f9-a73c-8408bf6cd949/130c99ee-d644-4e12-bb0a-c2b2b6850c54-master.m3u8https://video.igem.org/videos/embed/u7G417TE236w2TggNypS8k11600432021-10-30T11:33:03.176Z##AcneYES2021 Team PresentationsNOhttps://video.igem.org/w/eCJZU4KFBvVEFMoC86onFChttps://video.igem.org/lazy-static/thumbnails/33410d6a-9619-4bd1-8aac-569a2a6fbde5.jpgCHINA-FAFU: Microscopic Algae Macroscopic Energy. (2021) - Team Presentation [English]**Title:** Microscopic Algae Macroscopic Energy. **Description:** Microalgae are among the most efficient carbon sequestering organisms known, and the CHINA-FAFU iGEM team has used synthetic biology and molecular biology as the core tools to explore the association between key genes of ascorbic acid metabolic pathway and carbon dioxide fixation and lipid anabolism in microalgae, and to construct various engineered algal strains to verify the functions of related genetic elements. At the same time, we will use mathematical models to predict the possibility of practical production applications of the algae strains. Our project can provide a reference for the design and cultivation of excellent engineered strains of microalgae, and promote the reduction of biodiesel production cost and the international trend of new energy and carbon neutral economy. [Wiki](https://2021.igem.org/Team:CHINA-FAFU)https://static.igem.org/peertube/streaming-playlists/hls/6e6813af-fc66-4452-a344-b9186d02f00e/909b7333-3640-4af7-9021-19958d6f7449-master.m3u8https://video.igem.org/videos/embed/eCJZU4KFBvVEFMoC86onFC99202572021-10-30T12:06:27.259ZBiodieselMicroalageEnvironmentYES2021 Team PresentationsNOhttps://video.igem.org/w/1dwdBQtbUP5pcsz98zL3w7https://video.igem.org/lazy-static/thumbnails/7712bbd3-cb02-4587-982a-7f1c0f0eb38b.jpgAHUT_China: Breast cancer-targeting bacterial microrobots (2021) - Team Presentation [English]**Title:** Breast cancer-targeting bacterial microrobots **Description:** Breast cancer has overtaken lung cancer as the most frequently diagnosed cancer according to Cancer Statistics 2020. Expression of HER2 leads to poor prognosis in 30% of breast cancer. Though there are effective approaches for targeting HER2 such as trastuzumab for breast cancer patients, it is often associated with toxicity and resistance. New treatment strategies are, therefore, urgently needed. In this project, we decided to modify the probiotic E. coli Nissle 1917 to induce the expression of the HER2 artificial antibody and sTRAIL fusion protein in hypoxia, which can kill cancer cells. We demonstrated that sTRAIL fusion protein with trimerization structure could induce apoptosis in HER2-positive breast cancer cells. The modified strain with hypoxia-inducible promoter could express the fusion protein in low oxygen environment and induce apoptosis of breast cancer cells. Our result suggests that the probiotic we designed and engineered would be a potential novel treatment for breast cancer. [Wiki](https://2021.igem.org/Team:AHUT_China)https://static.igem.org/peertube/streaming-playlists/hls/01bf8c26-c1bc-47cc-ba44-bc0763c576ea/3be98b54-34da-48ea-a1fd-a56e44b3294d-master.m3u8https://video.igem.org/videos/embed/1dwdBQtbUP5pcsz98zL3w710970392021-10-30T13:10:16.461Z##THERAPEUTICS##ASIA#CHINAYES2021 Team PresentationsNOhttps://video.igem.org/w/3ZTz5qhd9Sdi95wTf7Lzadhttps://video.igem.org/lazy-static/thumbnails/e0564ef6-4f83-43bb-aeb0-483936122340.jpgNTU-Singapore: Rapid Detection of Single Nucleotide Mutations in COVID-19 and Ca... (2021) - Team...**Title:** Rapid Detection of Single Nucleotide Mutations in COVID-19 and Cancer **Description:** As we have learnt from interviews, assays that can detect mutations accurately are valuable in the diagnosis of fast evolving infectious diseases and cancer. Furthermore, in pandemics such as COVID-19, rapid point-of-care detection is essential to isolate patients as fast as possible and minimize spreading of the disease. Hence, we have developed a sensitive and easy-to-use diagnostic kit that can accommodate direct patient samples without RNA extraction and deliver results in under 40 minutes. Loop-mediated isothermal amplification (LAMP) was utilised to amplify the target genes. After amplification, a novel CRISPR-Cas12a Lb-RVRR enzyme was employed to identify different mutations based on the fluorescence intensity. Alternatively, we developed a probe that was sensitive to point mutations, allowing us to distinguish between different genetic variants in COVID-19 and cancer. Thus, our project has provided with better methods to diagnose such diseases for a better future. [Wiki](https://2021.igem.org/Team:NTU-Singapore)https://static.igem.org/peertube/streaming-playlists/hls/1847741a-1fc8-4aa9-9850-1d2c1ae6817a/464fcede-f35b-4fea-8f13-8659c1cad8d1-master.m3u8https://video.igem.org/videos/embed/3ZTz5qhd9Sdi95wTf7Lzad11980642021-10-30T13:41:37.855ZRT-LAMPColonCancerCRISPRDiagnosticsCOVID-19YES2021 Team PresentationsNOhttps://video.igem.org/w/pG2mLzK1BsWoKPV6JGwDU6https://video.igem.org/lazy-static/thumbnails/5821b9de-8615-4ac9-bf11-963d591152da.jpgYiYe-China: TFPI2 Methylation in Stool Samples for Early Detection of Colorectal... (2021) - Team...**Title:** TFPI2 Methylation in Stool Samples for Early Detection of Colorectal Cancer by Toehold Switch **Description:** Colorectal cancer is one of the most common cancers in the world. The current method for early diagnosis of colorectal cancer remains as a big limitation. Previous reporters identified syndecan-2 (SDC2) and tissue factor pathway inhibitor 2 (TFPI2) were aberrantly methylated in Colorectal Cancer. Quantitative methylation-specific PCR (qMSP) for detecting methylated SDC2 and TFPI2 has been reported as an effective early screening method for colorectal cancer. Toehold switches are a class of RNAs with a hairpin loop that can be unfolded upon binding a trigger RNA for translation initiation of the reporter protein, which plays an important role in clinical diagnoses. In this study, we constructed a toehold plasmid and incubated it in the cell free protein expression system with methylated TFPI2 with a trigger sequence, which offers a non-invasive and visible approach for early detection of colorectal cancer in the future. [Wiki](https://2021.igem.org/Team:YiYe-China)https://static.igem.org/peertube/streaming-playlists/hls/bfd8c6e4-a5fc-4d29-b7c5-65f31b2aba31/b8654bdb-cc1a-40da-93c5-300a136ff8b6-master.m3u8https://video.igem.org/videos/embed/pG2mLzK1BsWoKPV6JGwDU69800442021-10-30T14:20:24.493ZHighSchoolTrackCRCDiagnosisYES2021 Team PresentationsNOhttps://video.igem.org/w/p7Z4z5kSMrbiw7tCwZcptxhttps://video.igem.org/lazy-static/thumbnails/e748b0e2-6b3c-4516-9529-c91092b2a576.jpgCalgary: Neocycle: The development of novel REE extraction, recovery, and measur... (2021) - Team...**Title:** Neocycle: The development of novel REE extraction, recovery, and measurement methods from electronic waste **Description:** Rare earth elements (REEs) possess unique physical and chemical properties that make them an essential component of many everyday technologies, such as cellphones, televisions, and automobiles. Presently, REEs are not mined sustainably, and current trends indicate that an alternate source is critical to avoid a period of REE scarcity. Neocycle is a system that works to selectively recover REEs from an underutilized source, electronic waste. First, REE extraction is necessary through the process of bioleaching, where the acid-producing organisms Gluconobacter oxydans and Acidithiobacillus thiooxidans, solubilize the electronic waste feedstock. Next, REEs are recovered from the e-waste leachate through the use of the novel lanthanide-ion binding protein, lanmodulin, in an adsorption column system. Finally, the recovered REE ions are measured using one of three novel measurement systems, which are based on lanmodulin fusion proteins. Through this pipeline, Neocycle aims to provide a sustainable and more accessible source of REEs. [Wiki](https://2021.igem.org/Team:Calgary)https://static.igem.org/peertube/streaming-playlists/hls/bb3bd136-3187-447f-a5bf-1e43bfbf5801/df736286-ebad-424a-af58-b5a992eefd6a-master.m3u8https://video.igem.org/videos/embed/p7Z4z5kSMrbiw7tCwZcptx112201422021-10-30T14:39:12.643ZYES2021 Team PresentationsNOhttps://video.igem.org/w/iS75Uu1evgNqw4B3FiYAumhttps://video.igem.org/lazy-static/thumbnails/ede91e02-3019-47d2-a872-2cd3b9fdbe46.jpgNUS_Singapore: Photo-Regulated Yeast for Synthetic Biology Manufacturing (PRYSM) (2021) - Team Pr...**Title:** Photo-Regulated Yeast for Synthetic Biology Manufacturing (PRYSM) **Description:** COVID-19 has disrupted global food supply chains, exposing the fragility of Singapore s food supply chains, of which 98% of food is imported. As Singapore moves to accomplish the national goal of locally producing 30% of its food consumption by 2030, the demand for suitable pest control in the ever-increasing number of farms will surge. Synthetic pesticides are still considered the gold standard in pest control. However, concerns with the negative environmental/health effects of synthetic pesticides limits their use. Biological antimicrobial peptides have been identified as potential substitutes, however, with current Bioproduction methods it is economically infeasible to produce such compounds for use as bio-pesticides. This project aims to produce Human Beta Defensin (as an exemplar) using a more cost effective approach for use as a bio-bactericide/fungicide at the farms. This is achieved through the development an optogenetically controlled yeast chassis and an open-source bioreactor designed for the chassis. [Wiki](https://2021.igem.org/Team:NUS_Singapore)https://static.igem.org/peertube/streaming-playlists/hls/90aa4ba3-bf8b-477a-a1ba-ae1b5b21d264/721b683e-abc7-4c04-bd01-3f1fe37c4fb2-master.m3u8https://video.igem.org/videos/embed/iS75Uu1evgNqw4B3FiYAum120008822021-10-30T18:16:46.956ZSingaporeNusStrawberryHeroPrysmYES2021 Team PresentationsNOhttps://video.igem.org/w/3JtCSuuE11iJjdkAkyh375https://video.igem.org/lazy-static/thumbnails/b7e53963-7807-4f1d-a588-4dac61f87e6d.jpgManchester: UriGel: Fighting Catheter Acquired Urinary Tract Infections With Eng... (2021) - Team...**Title:** UriGel: Fighting Catheter Acquired Urinary Tract Infections With Engineered Bacteria **Description:** Catheterization is required in many hospital patients, and long-term catheterization leads to catheter-associated urinary tract infections (CAUTIs) in most patients. Talks with doctors identified there was no system in place to effectively prevent CAUTIs. To address this issue, we designed a hydrogel coating containing engineered bacteria which would sense pathogens and secrete biofilm degrading enzymes, secrete inhibitors of virulent enzymes, express a binding domain to attach to the hydrogel and depend on the urinary tract environment for survival (kill switch). Mathematical modelling of our hydrogel found that our secreted products would efficiently diffuse through the hydrogel. We created a model for our antibiofilm mechanism that can be used by future teams with similar mechanisms. Molecular docking modelling identified a candidate virulent enzyme inhibitor. Finally, a urea- and a sarcosine-responsive promoter were characterised to validate our kill switch mechanism. Overall, we have successfully designed a potential solution to CAUTIs. [Wiki](https://2021.igem.org/Team:Manchester)https://static.igem.org/peertube/streaming-playlists/hls/16208bf8-c367-41e8-8ef5-c9144c924708/9d5955a3-735c-4546-8a29-b91c071d22d6-master.m3u8https://video.igem.org/videos/embed/3JtCSuuE11iJjdkAkyh37510470722021-10-30T19:08:01.176ZYES2021 Team PresentationsNOhttps://video.igem.org/w/4TocxbLYuZSyhYVYy9kHq5https://video.igem.org/lazy-static/thumbnails/d3249c59-6e88-426b-a8a3-821bc1619dfd.jpgWaterloo: NeuroDetech (2021) - Team Presentation [English]**Title:** NeuroDetech **Description:** Attention-Deficit/Hyperactivity Disorder (ADHD) is a neurodevelopmental disorder characterized by inattentiveness, an inability to focus, and restlessness. Current ADHD diagnosis procedures require a series of psychological assessments that are qualitative in nature and subject to potential clinician bias. Waterloo iGEM s 2021 project, NeuroDetech, is a quantitative tool that aids in the diagnosis of ADHD and reduces the margin of bias. NeuroDetech consists of a series of microfluidic capillary flow assay lab chips designed using process engineering methods. Each lab chip contains a binding molecule that detects an ADHD-associated biomarker or gene marker in urine. Through protein engineering and computational protein redesign methods, the binding molecule can be adapted for the sensitive detection of a variety of ADHD-associated markers. Each lab chip and optical detector emits a signal over time that is visualized on a software app, providing healthcare professionals with insight into an individual s risk for ADHD. [Wiki](https://2021.igem.org/Team:Waterloo)https://static.igem.org/peertube/streaming-playlists/hls/1f780761-01a6-49af-89ef-da964493b030/a4960107-e4b5-4d39-b5ad-ec6ffe927440-master.m3u8https://video.igem.org/videos/embed/4TocxbLYuZSyhYVYy9kHq510740542021-10-31T01:34:26.507ZYES2021 Team PresentationsNOhttps://video.igem.org/w/uumb2RZ7q1EQhQkrzHcAzihttps://video.igem.org/lazy-static/thumbnails/b344460c-fb95-4711-bb22-83eeac728584.jpgUBrawijaya: Clean Harvest of Overexpressed Protein System (2021) - Team Presentation [English]**Title:** Clean Harvest of Overexpressed Protein System **Description:** Indonesia is struggling to independently meet industrial enzyme demands despite efforts to develop cheaper technologies to produce them. Although various enzyme overexpression systems are available, the cost of purification remains a major obstacle. To help address this, we propose the Clean Harvest of Overexpressed Protein (CHOP) system. The system works by anchoring an enzyme of interest (EoI) onto the extracellular terminals of an outer membrane protein (OMP). As the cells grow, they will naturally shed their outer membrane as vesicles (OMV) containing OMP-EoI fusion. Due to OMVs being smaller than cells yet larger than free proteins, they can be separated from the bulk of protein impurities, simplifying the downstream processing. Once separated, the EoI may be released from the OMP by cleaving off a specific linker between the fusion with specific proteases. The development of overexpression systems that simplify downstream purification is expected to significantly reduce enzyme production costs. [Wiki](https://2021.igem.org/Team:UBrawijaya)https://static.igem.org/peertube/streaming-playlists/hls/e6b523db-ca29-4654-9fe0-d9a63bd90afb/4953fc74-febb-4ff2-98fe-27f07a8df763-master.m3u8https://video.igem.org/videos/embed/uumb2RZ7q1EQhQkrzHcAzi6990862021-10-30T19:48:40.878ZEnzymeCHOPsystemOMVYES2021 Team PresentationsNOhttps://video.igem.org/w/iUoK6c5Yv6sCwkDdEgnARyhttps://video.igem.org/lazy-static/thumbnails/8fb88bdf-3b89-4b57-ad25-d1dd7afc3de5.jpgStockholm: Mikroskin: an aptamer-based biosensor for the detection of skin micro... (2021) - Team...**Title:** Mikroskin: an aptamer-based biosensor for the detection of skin microbiome dysbiosis **Description:** One third of the world's population suffer from skin diseases, like acne and atopic dermatitis. These diseases can cause a negative effect in peoples mental health. There are several sources to skin diseases and dysbiosis in the skin microbiome is one potential source. In order to find the source of the disease, improve to the research community and strive for more personalized health care, we at iGEM Stockholm developed a semi-quantitative rapid test to detect potential dysbiosis that causes the skin diseases. This has been done by developing aptamers targeting teichoic acid that exists in all gram-positive bacteria, which constitutes nearly all bacteria of the skin microbiome. Moreover, other aptamers target C.acnes and S.aureus, which are known to cause skin problems. After conjugating the selected aptamers to 10,12-Pentacosadiynoic acid (PCDA) polymers, a color change visual to the naked eye will be obtained when the aptamers bind to their target. [Wiki](https://2021.igem.org/Team:Stockholm)https://static.igem.org/peertube/streaming-playlists/hls/90fc0c90-c0da-4194-931f-cca549f3a77a/6b403bdc-e9a1-40cb-bafa-106a2a57cc25-master.m3u8https://video.igem.org/videos/embed/iUoK6c5Yv6sCwkDdEgnARy109501952021-10-30T20:10:23.000ZDiagnosticsMicrobiotaAptamerSELEXBiosensorYES2021 Team PresentationsNOhttps://video.igem.org/w/cozYkd4B4PYgmW6m8STuaQhttps://video.igem.org/lazy-static/thumbnails/c1e59e0c-fec6-435e-97aa-04ecf1d12cf0.jpgGreatBay_SCIE: ONCOKILLER (2021) - Team Presentation [English]**Title:** ONCOKILLER **Description:** Breast cancer is one of the most serious health issues faced by human society. However, its solution remains flawed in many ways, for example, antibody-drug conjugates often cause great side effects; pathway inhibitor drugs rely on specific pathways which sometimes can be bypassed by tumor cells. To tackle these issues, we developed a new drug delivery system consisting of aptamers, nanoparticle, and a model drug similar to that of ADC, but applying aptamers rather than an antibody. Moreover, we make modifications throughout the system to further improve the drug's specificity and stability: our aptamers are pH-sensitive, only binding to cancer cells in an acidic tumor environment together with the nanoparticles. We have communicated with experts and modified our project design based on their advice. In addition, we produced card games and documentaries and delivered lectures to increase our project's publicity and promote the significance of synthetic biology in the real world. [Wiki](https://2021.igem.org/Team:GreatBay_SCIE)https://static.igem.org/peertube/streaming-playlists/hls/5c3bd2de-d160-4a69-9058-56b58563c822/6e665f6a-e3dc-42a1-915a-f49223d8b9ed-master.m3u8https://video.igem.org/videos/embed/cozYkd4B4PYgmW6m8STuaQ101301042021-10-30T20:27:52.122ZYES2021 Team PresentationsNOhttps://video.igem.org/w/tfSnXCENsrhws3rcN2YN2Phttps://video.igem.org/lazy-static/thumbnails/115de835-a70d-45c5-b0bd-ccb505e77c79.jpgUESTC-China: Deink the dark (2021) - Team Presentation [English]**Title:** Deink the dark **Description:** Nowadays the recycling rate of office waste paper (OWP) in China is dramatically low. We find that cellulase, xylanase, lipase, and laccase will allow bio-deinking to occur, by helping the ink detach from the waste paper and decomposing hazardous substances. We also design a new surface assembly of a functional cellulosome by using Pichia pastoris. Otherwise, to bring our idea to the real world, we design a paper recycle machine (Deinker) which includes the transmission part, enzyme liquid smearing part, deinking part, and paper drying part. Through this device, the OWP will be reborn. In addition, 5 mathematical models are built for improving experiments, hardware, and implementation. Moreover, Human Practice has been constantly advancing as the project progresses, we design related activities from four aspects: practical issues, technology, market and industry, policy, and law to understand the exact needs of stakeholders. [Wiki](https://2021.igem.org/Team:UESTC-China)https://static.igem.org/peertube/streaming-playlists/hls/dcba3419-d36d-435a-b877-7a74a3365eb1/a90efb70-b3c8-4736-94aa-5d0df80b71e6-master.m3u8https://video.igem.org/videos/embed/tfSnXCENsrhws3rcN2YN2P114203892021-10-30T21:21:25.655ZBio-deinkingCellulosomeSystemProteinStructurePredictionYES2021 Team PresentationsNOhttps://video.igem.org/w/uZftSumW3wesWWbp8LhKfshttps://video.igem.org/lazy-static/thumbnails/350731d2-b1d4-4dd1-b223-80c7dcadd38a.jpgOUC-R: RegulatorZ A gene expression regulator achieved by conformation changes o... (2021) - Team...**Title:** RegulatorZ A gene expression regulator achieved by conformation changes of Z-DNA **Description:** Based on the study of our team PI, We designed a DNA double-loop structure with hairpin, APP sequence, promoter sequence and ribozyme gene. By adding inducer, the conformation of DNA changed and ribozyme gene expressed normally. We plan to use this switch to simulate the effects of special structures such as left spiral DNA and cross structure on gene expression in organisms, and it can be applied to detect whether cobalt ions, nickel ions and ZBP1 protein are contained in the environment. In further studies we also focus on diseases caused by DNA conformational changes, like Alzheimer s Disease and Breast Cancer, seeking a way of detection of these diseases and an easy and quick method to show the diagnosing results. [Wiki](https://2021.igem.org/Team:OUC-R)https://static.igem.org/peertube/streaming-playlists/hls/eabe3389-1b1c-434e-a09f-a589e2982bb2/f9fe81de-6c02-420a-9b8e-e414b3d7a5d5-master.m3u8https://video.igem.org/videos/embed/uZftSumW3wesWWbp8LhKfs11780252021-10-30T21:47:22.968ZFoundationalAdvanceZ-DNARegulatorsDNAConformationChangesYES2021 Team PresentationsNOhttps://video.igem.org/w/nBJdTvsRBwU2yhbkHGrBzchttps://video.igem.org/lazy-static/thumbnails/7a281c5f-949f-4405-bbde-1aa82abe6a39.jpgTecCEM: Disrupting Disruptors (2021) - Team Presentation [English]**Title:** Disrupting Disruptors **Description:** We designed a biosensor for the detection of Endocrine Disruptive Compounds (EDCs) in samples of bottled water. This biosensor works through the immobilization of protein receptor hER alpha on a piezoelectric sensor. The protein captures these chemicals, while the piezoelectric sensor senses the change of mass through a change of the natural resonance of the quartz. This signal is recieved and interpreted by a circuit of our own design and will give us information about the concentration of EDCs on the sample of water. We focused on the enzymatic degradation of these compounds as well, through the expression of a Laccase. We plan on introducing this step as part of the purification process of fresh water, guaranteeing EDC-free water to our community and reducing the risk of developing any serious illness. [Wiki](https://2021.igem.org/Team:TecCEM)https://static.igem.org/peertube/streaming-playlists/hls/af0cf6d3-d8a4-47f1-b54f-8ab58f927639/69b934d3-3d50-47f6-8a5f-57b544e6a9bc-master.m3u8https://video.igem.org/videos/embed/nBJdTvsRBwU2yhbkHGrBzc11980332021-10-30T22:25:26.155ZEDCs,Biosensor,DegradationYES2021 Team PresentationsNOhttps://video.igem.org/w/hPRB4KV4HUTZWCuL3NG6pghttps://video.igem.org/lazy-static/thumbnails/c8432ecc-1e85-4850-8f3f-7726c1c4b8eb.jpgBOKU-Vienna: Friendzyme - a novel therapeutic platform in case of Irritable Bowe... (2021) - Team...**Title:** Friendzyme - a novel therapeutic platform in case of Irritable Bowel syndrome, and related disorders **Description:** About 15% of the worlds population suffer from bowel disorders like irritable bowel syndrome (IBS), and related disorders. These are triggered by so-called FODMAPs (fermentable oligo-, di-, mono-saccharides and polyols), which are non-digestible food components that lead to bloating, abdominal pain and other symptoms. So far the only therapy is a highly restrictive diet. We want to change that by addressing neglected gastrointestinal diseases and tackling one of the most common FODMAPs: Fructans, a fructose polymer. Our goal is to develop a novel therapeutic platform by the use of lactobacilli that secrete fructan-degrading enzymes. We encapsulate them in a biocompatible scaffold that keeps them safely inside while allowing the release of the produced enzymes. The surface of the scaffold is designed to have muco-adhesive properties which enable site-targeted enzyme delivery over a prolonged timespan. With this concept we want to take oral enzyme therapy to the next level. [Wiki](https://2021.igem.org/Team:BOKU-Vienna)https://static.igem.org/peertube/streaming-playlists/hls/8840bee2-deae-4965-a55e-17687abd1659/1fb6206d-8841-4a41-b4f6-b6097148900b-master.m3u8https://video.igem.org/videos/embed/hPRB4KV4HUTZWCuL3NG6pg7190672021-10-30T23:30:48.960ZFODMAPsEnzymetherapyIBSLactobacillusTherapeuticsYES2021 Team PresentationsNOhttps://video.igem.org/w/pqvp8mbioNwZXHJUHimo4rhttps://video.igem.org/lazy-static/thumbnails/b8056e3e-29bd-46f5-8306-61d174555614.jpgMIPT_MSU: Final destination for cancer: using viral sorting and targeting mechan... (2021) - Team...**Title:** Final destination for cancer: using viral sorting and targeting mechanisms for RNA molecules delivery **Description:** Our team propose a new method of targeted RNA delivery to tumour cells using membrane-derived extracellular vesicles with fusion proteins. The endogenous retroviral gene syncytin-1 was selected as a fusion protein to enhance fusional properties with the target cells. Its receptors (ASCT2) are found on some tumors cells, for example, colorectal adenocarcinoma. Using fusion protein, vesicles overcome the potential membrane barrier. In our iGEM project, we were focused on the sorting and targeted delivery of mRNA (GFP and b-galoxidase, reporter genes) to tumour cells. For mRNA sorting we used RNA-binding domain (N domain of gag protein), which can recognize the psi-packaging signal of the HIV1. The mRNA will be associated with the psi-signal, and RNA-construction (target mRNA+psi-signal) will be recognized by the gag protein. Currently, there are no analogs of such systems in the world, so our technology might become a breakthrough in the field of targeted drug delivery techniques. [Wiki](https://2021.igem.org/Team:MIPT_MSU)https://static.igem.org/peertube/streaming-playlists/hls/bdae2843-24db-4962-aadd-b8230a9192af/dd8bc93c-e4b8-45f2-bf6a-eac66daa297a-master.m3u8https://video.igem.org/videos/embed/pqvp8mbioNwZXHJUHimo4r9560422021-10-30T23:50:14.565ZExtracellular_vesicleCancerFusion_proteinRNA_sortingTargeted_deliveryYES2021 Team PresentationsNOhttps://video.igem.org/w/mpvEQJg3MnFL5rT9S9BndUhttps://video.igem.org/lazy-static/thumbnails/b11d241a-192c-44f9-870e-295b21b6e9af.jpgOhioState: Lipid-A Phighter - an engineered phage therapy to combat sepsis (2021) - Team Presenta...**Title:** Lipid-A Phighter - an engineered phage therapy to combat sepsis **Description:** Sepsis is caused by the overreaction of the immune system to an infection. This overreaction can starve organs of oxygen leading to tissue death, organ failure, and even death. Approximately 1 in 5 deaths worldwide are sepsis-related. When sepsis is caused by a bacterial infection, the immune system reacts to an endotoxin, lipid-A. Our solution was a phage that can kill bacteria and release molecules that competitively inhibit or modify lipid A such that the immune response is reduced. We designed recombinant plasmids with multiple promoters and different anti-lipid A genes to be inserted into the phage genome. Beyond the lab, we created a predictive model for baseline gene expression to compare promoter strengths. Additionally, we worked to propose legislation promoting phage therapy and spread awareness about sepsis by creating a children s book. [Wiki](https://2021.igem.org/Team:OhioState)https://static.igem.org/peertube/streaming-playlists/hls/a53f2a1b-c17f-4482-9ba3-88e8d652ae98/e4b0c290-2eb0-419e-99f8-8c453c2c0b3d-master.m3u8https://video.igem.org/videos/embed/mpvEQJg3MnFL5rT9S9BndU8020542021-10-31T00:35:48.756ZYES2021 Team PresentationsNOhttps://video.igem.org/w/en6ih1tPBF3y6sv6sxwdAXhttps://video.igem.org/lazy-static/thumbnails/99fd7158-90b7-4865-a9be-523ad20cb886.jpgCUHKSZ: EthaNO (2021) - Team Presentation [English]**Title:** EthaNO **Description:** Alcoholic beverages usually play an important role in our social life. Some spirits, like Chinese Maotai, may also contain some ingredients beneficial to human health. However, the high concentration of ethanol in those spirits can also take a serious toll on human health. Our project EthaNO is a tiny device that can decompose ethanol in alcoholic beverages. We aim to figure out the oxidation mechanism of bi-functional alcohol/ aldehyde dehydrogenase (AdhE) through computational biology E.coli bacteria are transformed with modified gene and will generate enzymes to degrade ethanol. To make it user-friendly, PVA-SA granules are applied to store the bacteria in the device. We will optimize the immobilization method to maximize degradation efficiency. With EthaNO, people can enjoy alcoholic beverages like Maotai without worrying about ethanol. [Wiki](https://2021.igem.org/Team:CUHKSZ)https://static.igem.org/peertube/streaming-playlists/hls/6c38afc9-d420-4aab-9255-c6a24ddb893b/5d68cdbf-3d07-4fdf-9007-4deccb8f7077-master.m3u8https://video.igem.org/videos/embed/en6ih1tPBF3y6sv6sxwdAX11670202021-10-31T00:54:40.169ZYES2021 Team PresentationsNOhttps://video.igem.org/w/9oUMcScfbu78W6sDyytfFQhttps://video.igem.org/lazy-static/thumbnails/a7793de3-8f67-4552-b0ce-68cfb853fddf.jpgSCUT-China: Nootka-Boom! (2021) - Team Presentation [English]**Title:** Nootka-Boom! **Description:** In the humid south, mosquito repellent has been the concern of Guangzhou people. Mosquitoes are not only annoying but also spread various diseases. Therefore, in tropical and subtropical areas, mosquito repellant products are in great demand. Nootkatone is a new mosquito repellent ingredient reported by EPA with more safety and higher stability, but excessively high cost has caused manufacturing limitations. SCUT-China aims at turning S. cerevisiae into a cell factory for Nootkatone production and improving efficiency by promoter engineering modification. Based on the fermentation characteristics of S. cerevisiae, we combined the upstream regulatory elements of different promoters according to the carbon source response mechanism of promoters, and obtained hybrid-promoter supporting high expression in both early and late fermentation. Further, we increased the transcriptional strength of hybrid-promoters by nucleosome affinity model. It is hoped that this project could help achieve higher market shares of Nootkatone and benefit more people. [Wiki](https://2021.igem.org/Team:SCUT-China)https://static.igem.org/peertube/streaming-playlists/hls/43fbffa9-1d0c-4f75-b07a-c5fa1c929e76/1448afb1-561b-4fb9-8622-e022d38b39eb-master.m3u8https://video.igem.org/videos/embed/9oUMcScfbu78W6sDyytfFQ11220482021-10-31T03:12:52.554ZNootkatoneS.CerevisiaeUASSoftwareYES2021 Team PresentationsNOhttps://video.igem.org/w/237zPkdhJxfPBWE6MW2Egzhttps://video.igem.org/lazy-static/thumbnails/99ebddf6-0f09-40f2-bb04-3443f158904c.jpgRDFZ-CHINA: Killer-X (2021) - Team Presentation [English]**Title:** Killer-X **Description:** The bacteria Xanthomonas has caused agricultural diseases worldwide. Meanwhile, the use of traditional pesticides and antibiotics is causing problems including antimicrobial resistance and social ethical issues. Therefore, we seek to find out an alternative way to treat microbial plant diseases. Through research, we found that phage therapy can be useful towards infectious diseases. However, storage difficulties and limited functional time result in the phage therapy's low popularity. Due to these problems, we intend to use synthetic biology technologies and phage delivery bacteria to develop a more efficient phage therapy towards Xanthomonas diseases. [Wiki](https://2021.igem.org/Team:RDFZ-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/0864aee2-3ec6-4493-9333-8d8e59ce0dc7/94b4f679-0d34-4624-921d-3abb625ef225-master.m3u8https://video.igem.org/videos/embed/237zPkdhJxfPBWE6MW2Egz10130282021-10-31T00:14:38.909ZYES2021 Team PresentationsNOhttps://video.igem.org/w/54Djogj3j7KL6kHV6CkiV1https://video.igem.org/lazy-static/thumbnails/b34fc2a7-d52c-4bd3-9f01-eeb6ee0765ba.jpgGA_State_SW_Jiaotong: Heterogeneous Expression of Recombinant Gas6 and EGF Prote... (2021) - Team...**Title:** Heterogeneous Expression of Recombinant Gas6 and EGF Proteins for Curing Alopecia **Description:** In research published in the past year, two critical proteins, Gas6 and EGF, have shown promise for treating stress-related and androgenetic alopecia. Plasmids were constructed for transformation into Pichia pastoris, E.coli, and Bacillus subtilis respectively. Gas6 proteins will be purified from Pichia pastoris and EGF proteins will be expressed in E.coli using a T7 promoter to produce a cell-free protein treatment for hair loss. As a possible alternative, two plasmids with the coding sequence for each protein and a suicide switch (to prevent unwanted growth of the bacteria after treatment) were designed to create a living-cell protein expression system in B.subtilis which could be applied to the microbiome of the scalp. [Wiki](https://2021.igem.org/Team:GA_State_SW_Jiaotong)https://static.igem.org/peertube/streaming-playlists/hls/20e6c889-5657-4e57-a129-c97e05f3757e/90962dde-151f-4495-aa90-c57d7c96b04f-master.m3u8https://video.igem.org/videos/embed/54Djogj3j7KL6kHV6CkiV111980212021-10-31T03:34:28.817ZNewApplicationScalpAgentsHnossAdventureHairLossAlopeciaTreatmentYES2021 Team PresentationsNOhttps://video.igem.org/w/fLdvmerzU12sJvQ7Df4FAghttps://video.igem.org/lazy-static/thumbnails/c6db189f-ce34-4f77-b51c-b1d15851cad8.jpgHeidelberg: How to train your microbiome (2021) - Team Presentation [English]**Title:** How to train your microbiome **Description:** With our project, we try to lay the foundations for a new therapeutic approach to treat microbiome-associated diseases. The currently used treatment, FTM, represents a severe interference with the patients microbiome. Our method should be able to treat diseases without changing the composition of the microbiome by giving it new capabilities. We use the natural competency of specific bacteria to take up DNA from their environment. Our idea is to deliver transforming DNA into the intestine to be taken up by these bacteria. Our drylab team processes microbiome 16s rRNA data to find natural competent bacteria. In the laboratory, we performed natural transformation of Acinetobacter baylyi. Additionally we tested the efficiency of phenylalanine lyase and demonstrated that it degrades phenylalanine in gut microbiome related bacteria species. Furthermore, we discussed novel natural selection advantages because antibiotics are no possibility in a patient. Between certain sugar catabolism, beta-glucosidase was the most promising. [Wiki](https://2021.igem.org/Team:Heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/778c5fcd-3468-4373-a9eb-652bf0b45c37/b0e1f77a-adf7-4444-b9c8-9b44fa818af3-master.m3u8https://video.igem.org/videos/embed/fLdvmerzU12sJvQ7Df4FAg117301052021-10-31T04:03:42.374ZHumanMicrobiomeYES2021 Team PresentationsNOhttps://video.igem.org/w/9yvBM6qGx1gpUjcQuxPr8Uhttps://video.igem.org/lazy-static/thumbnails/16edf7dd-232b-4d38-aa14-6118bcb8e35d.jpgGaston_Day_School: Risk of Bacteriophage-mediated Lateral Transfer in the Enviro... (2021) - Team...**Title:** Risk of Bacteriophage-mediated Lateral Transfer in the Environment **Description:** Bacteriophages exist in both natural and artificial environments and are able to transfer DNA from one type of bacteria to another. Bacteria, such as E.coli, released from synthetic biology labs may be infected by certain bacteriophages and the antibiotic resistance transferred to other bacteria leading to biosafety issues. To better understand this problem, we will assess the potential risk of lateral transfer of E. coli plasmids by T4 bacteriophages under different conditions. We have shown that T4 can transfer plasmid DNA, which does increase the risk of lateral transfer. However, the number of E. coli phages present in our local environment appears to be quite low, reducing the risk. We added four new T4 early promoters to the registry to support our project. Additionally, our team focuses on providing students who have visual and motor challenges a way to measure liquids through 3-D printing. [Wiki](https://2021.igem.org/Team:Gaston_Day_School)https://static.igem.org/peertube/streaming-playlists/hls/45532975-d2b0-4475-a1f3-b9465be91796/6d10da15-07b8-414d-b025-a58657ff3d1f-master.m3u8https://video.igem.org/videos/embed/9yvBM6qGx1gpUjcQuxPr8U11960152021-10-31T04:25:15.993ZYES2021 Team PresentationsNOhttps://video.igem.org/w/1kuzyKxmVVqoLZmEZkyjR2https://video.igem.org/lazy-static/thumbnails/c89d5f74-0929-411a-a3e6-3fa9052f26e5.jpgHamburg: E.T. - The ElectronTransferrestrial (2021) - Team Presentation [English]**Title:** E.T. - The ElectronTransferrestrial **Description:** Terpenoids are a large class of plant secondary metabolites used as food-flavors, fragrances or pharmaceuticals like artemisinic acid. Today, terpenoids are either extracted from plants they naturally occur in or produced synthetically using petrochemical starting materials.Only in a few cases have biotechnological approaches been successfully implemented for the production of terpenoids. Despite their chemical diversity, mainly two enzyme classes are required for terpenoid biosynthesis: cyclases and oxygenases. While cyclases are widely used in prokaryotes, oxygenases naturally occur as membrane-bound protein complexes. For functional expression in E. coli, soluble versions as well as compatible reductases are required. Additionally, protein expression places significant strain on the energy metabolism of E. coli. We are addressing these problems by creating fusion constructs of oxygenase and reductase proteins, as well as increasing the availability of NADPH. Advances in this field will lead to more sustainable and economical terpenoid production in the future. [Wiki](https://2021.igem.org/Team:Hamburg)https://static.igem.org/peertube/streaming-playlists/hls/02b8be6e-f17f-4a80-b267-fe69b12b9df3/4975497c-800a-45de-8565-4b106545e130-master.m3u8https://video.igem.org/videos/embed/1kuzyKxmVVqoLZmEZkyjR212010482021-10-31T04:45:32.619ZFusionproteinsFermentationPhototrophElectronsExtraTransferrestrialYES2021 Team PresentationsNOhttps://video.igem.org/w/ntnf6ePS8V4TsRzHGhqCGghttps://video.igem.org/lazy-static/thumbnails/30daed3e-1331-4e3e-848c-494444c22a6f.jpgBIT: Early screening of colorectal cancer(CRC) based on CRISPR/Cas12-coupled Sli... (2021) - Team...**Title:** Early screening of colorectal cancer(CRC) based on CRISPR/Cas12-coupled SlipChip for detection of miRNA **Description:** Early screening and treatment of colorectal cancer(CRC) has been proved to be conducive to reducing the mortality rate of CRC. Currently, most diagnostic methods do not meet the requirements of rapid, sensitive and specific screening of CRC. Based on the selection of miRNA as our biomarker for its high sensitivity and specificity we developed an ultrasensitive approach for miRNA detection based on a combination of Loop-mediated isothermal amplification(LAMP), CRISPR-Cas12a trans-cleavage and SlipChip. We also designed temperature-control and fluorescence detection modules to erect an interactive IVD system for POCT detection. Our system has been tested to be simple to operate, for completing the process within 1h and its sensitivity reaches to fM level. Furthermore, our system has the capacity to detect different miRNAs, giving the potential to build standardized cancer detection platforms. [Wiki](https://2021.igem.org/Team:BIT)https://static.igem.org/peertube/streaming-playlists/hls/ade215c7-71c4-43e5-9080-e51916a1abaf/78fb75ca-2583-4791-a19b-adc5d085ee4c-master.m3u8https://video.igem.org/videos/embed/ntnf6ePS8V4TsRzHGhqCGg11870452021-10-31T05:17:46.813ZEarlyScreeningLAMPCrispr/CasSlipChipIVDYES2021 Team PresentationsNOhttps://video.igem.org/w/h5wGH4eEXBem1uhsuQtFFZhttps://video.igem.org/lazy-static/thumbnails/6140019e-149f-4440-8e30-2fe4b2f015cd.jpgBaltimore_BioCrew: Joy-Biotic: Challenging Mental Illness & Its Stigma One Flavo... (2021) - Team...**Title:** Joy-Biotic: Challenging Mental Illness & Its Stigma One Flavored Drop at a Time **Description:** The COVID-19 Pandemic has brought an increase in mental illness rates. The group most critically affected by this increase is high school students, the peer group of The Baltimore BioCrew. To challenge the stigma and the increasing rates of mental illness, the BioCrew has created Joy-Biotic, a flavored water probiotic that will increase serotonin production by producing 5-HTP, GABA, and acetylcholine in Lactobacillus and E. coli Nissle. These molecules increase neurotransmitters in the brain. To prevent serotonin syndrome, we engineered a negative feedback loop that would regulate the levels of serotonin. To raise awareness about mental health stigma, we have created a podcast interviewing mental health professionals, a social media campaign, an educational comic, and a course teaching high school students about the relationship between the gut biome and mental health. Through oral ingestion of Joy-Biotic, the BioCrew plans to fight mental illness one flavored drop at a time [Wiki](https://2021.igem.org/Team:Baltimore_BioCrew)https://static.igem.org/peertube/streaming-playlists/hls/82341d44-eee6-444c-b6d1-38c938c64ac3/00a8ad81-2b0a-4553-a046-a0ebfe0ce90e-master.m3u8https://video.igem.org/videos/embed/h5wGH4eEXBem1uhsuQtFFZ10080252021-10-31T05:34:55.885ZYES2021 Team PresentationsNOhttps://video.igem.org/w/tk82ASrqLA24sxWKULN7Zjhttps://video.igem.org/lazy-static/thumbnails/c9a4168b-9955-4b63-85d9-db1cf82c3680.jpgQueens_Canada: No title (2021) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2021.igem.org/Team:Queens_Canada)https://static.igem.org/peertube/streaming-playlists/hls/dd5234d4-6cac-4968-b6ee-8e14efd46d04/eb549349-8138-4e4b-9b39-02412f571c4b-master.m3u8https://video.igem.org/videos/embed/tk82ASrqLA24sxWKULN7Zj11980232021-10-31T05:57:21.582ZYES2021 Team PresentationsNOhttps://video.igem.org/w/prnmejBGK8x2FoBD2MTKbLhttps://video.igem.org/lazy-static/thumbnails/880603d6-df28-4cc3-bec9-84ca4e507648.jpgNCKU_Tainan: MenTAUR - Your Life s Mentor. (2021) - Team Presentation [English]**Title:** MenTAUR - Your Life s Mentor. **Description:** Mental health disorders, especially chronic stress-induced depression (CSID), have heavily impacted the lives of many. During the COVID-19 pandemic, humanity has been under more irregularity, and currently, 25% of the global population is highly stressed out. To alleviate mental dysregulations caused by aggregating stress, iGEM NCKU_Tainan invented MenTAUR , a revolutionary solution to CSID. MenTAUR consists of two components: Menbles and f(int). Menbles are edible Taiwanese bubbles containing E. coli Nissle 1917 that can autoregulate the production of taurine, a well-known neuroprotective agent, in the intestine by sensing the reactive oxygen species (ROS) and interferon-gamma (IFN- ), which are of higher levels in stressed-induced depressive patients. f(int) is a microfluidic chip that simulates the intestinal environment where the auto-production of taurine occurs, allowing us to model the metabolism of Menbles. iGEM NCKU_Tainan believes that MenTAUR, as your life s mentor, serves as guidance on your journey to a stress-free world. [Wiki](https://2021.igem.org/Team:NCKU_Tainan)https://static.igem.org/peertube/streaming-playlists/hls/bdccf0a9-929b-47af-8a96-e34e27753da4/32d76926-1b14-4808-ab15-2f682b1960ad-master.m3u8https://video.igem.org/videos/embed/prnmejBGK8x2FoBD2MTKbL11400882021-10-31T06:20:13.294ZCSIDFood&NutritionMenTAURNCKUTainanYourLifeMentorYES2021 Team PresentationsNOhttps://video.igem.org/w/vcqf8xkGgipogDsz3dS6nXhttps://video.igem.org/lazy-static/thumbnails/f271f38c-cf6e-4733-b720-6a9e722de4de.jpgBNU-China: Cheat Me If You Can (2021) - Team Presentation [English]**Title:** Cheat Me If You Can **Description:** In industrial production, inevitable mutations and phenotypic variations will lead to the appearance of cheater cells which avoid the burden of synthesizing exogenous products. Given the liberation from synthesis, cheaters may gain remarkable survival advantages over common workers. Such strain degeneration will therefore lead to a great loss in both quality and quantity of the products. To solve this problem, BNU-China seeks inspiration from a natural colonial model, in which guard bacterial cells can specifically eliminate cheater cells to maintain the balance of the population. We decide to develop a universal cheater-proof platform for industrial production by introducing carefully engineered guards and workers into the system. [Wiki](https://2021.igem.org/Team:BNU-China)https://static.igem.org/peertube/streaming-playlists/hls/ec7124ad-76c0-41e4-a01c-c4aa8e0ff4bd/05dced50-aca8-4a0f-abd9-daa4a818ee65-master.m3u8https://video.igem.org/videos/embed/vcqf8xkGgipogDsz3dS6nX11960602021-10-31T06:45:33.356ZYES2021 Team PresentationsNOhttps://video.igem.org/w/gHwJJF9VPjAxzFFMC72c76https://video.igem.org/lazy-static/thumbnails/27b88350-1d33-4822-b62a-ed6870865415.jpgSCU-China: Vibrio natriegens 'Marionette': Achieve strict and subtle gene regula... (2021) - Team...**Title:** Vibrio natriegens 'Marionette': Achieve strict and subtle gene regulation in Vibrio natriegens **Description:** Vibrio natriegens can propagate in 10mins and has been applied in metabolic engineering, protein production as well as other fields. Until now, no efficient strategy for gene regulation on V.n has been developed. In our project: Vibrio natriegens 'Marionette', we develop a new strategy for strict and subtle gene regulation aiming at promoting the use of V.n in synthetic biology. By introducing artificial promoters, insulators, UTRs, controllable ORI and Marionette collection, we build a golden-gate-based part collection, which enables strict and tunable gene expression in V.n. Furthermore, we engineered miniature Cas (751aa) and AsCas12f1(422aa) taking high sensitivity of V.n to burden caused by protein expression, to achieve efficient CRISPRa and CRISPRi of multiple genes. We also explore the possibility to build incoherent feed-forward loops (iFFLs) by Cas protein. Our strategy showed a fantastic performance in the regulation of VioABCDE cluster and production of flavoind. [Wiki](https://2021.igem.org/Team:SCU-China)https://static.igem.org/peertube/streaming-playlists/hls/7f458447-2388-4d81-9296-1b45055e04b5/5f0cf8b8-e0dc-424a-97a7-388c647450d2-master.m3u8https://video.igem.org/videos/embed/gHwJJF9VPjAxzFFMC72c767840582021-10-31T07:00:35.007ZYES2021 Team PresentationsNOhttps://video.igem.org/w/ePMoGFumDRx5x6sykAdrDehttps://video.igem.org/lazy-static/thumbnails/eb688207-6bc8-407e-bca0-77d8a5ab7658.jpgNWU-CHINA-A: An adventure of ancient snails: Revive Tyrian purple by E.coli (2021) - Team Present...**Title:** An adventure of ancient snails: Revive Tyrian purple by E.coli **Description:** Tyrian purple is a natural dye that originally extracted from the secretion of sea snails in the ancient times, whose production cost thousands of snails and heavily relied on manpower. Nevertheless, there is not a method to prepare Tyrian purple in a large scale by now. Thus, we aim to realize the biosynthesis of 6,6-dibromoindigo, which is the main chemical constituent of Tyrian purple. The pathway begins from tryptophan and sodium bromide and end in 6,6-dibromoindigo, consisting of three successive reactions. To reduce the insolubility of the halogenase in the first reaction, we add a flavin reductase as a soluble tag on the N-terminal of the halogenase. Moreover, we get a tryptophanase knocked out strain by CRISPR/Cas9 to avoid the potential side reactions. Also we established a whole-cell reaction system to produce 6,6-dibromoindigo cheaply and efficiently. In addition, a dyeing protocol was developed to utilize our Tyrian purple products. [Wiki](https://2021.igem.org/Team:NWU-CHINA-A)https://static.igem.org/peertube/streaming-playlists/hls/6ff2bbb4-0c7a-46ff-8b8d-12e967039dd3/7a70de82-aebc-4881-9ea7-ae7884cf57e6-master.m3u8https://video.igem.org/videos/embed/ePMoGFumDRx5x6sykAdrDe10380582021-10-31T07:27:01.719ZBIOLOGICALDYENATURALPIGMENTYES2021 Team PresentationsNOhttps://video.igem.org/w/6rfm2krDRQ9aX1BfzY4gYQhttps://video.igem.org/lazy-static/thumbnails/54e18b2c-9a53-4096-95ae-06dc524f3206.jpgNIT_Warangal: Cost-effective enzyme mediated degradation of gossypol in cotton s... (2021) - Team...**Title:** Cost-effective enzyme mediated degradation of gossypol in cotton seed meal: A step towards food sustainability **Description:** Cottonseed is a potential and sustainable source of protein that can satisfy the protein requirement of nearly half a billion people every year. Despite its nutritious and functional food qualities, the consumption of cotton seeds is severely hampered by the presence of a toxic terpenoid known as gossypol. The enzymatic method has proved to be effective for detoxifying gossypol as it is substrate-specific. To date, the degossypolyzation of CSM by enzymatic techniques remains largely unexplored. In the present study, we have computationally screened for enzymes displaying affinity towards gossypol. The top screened enzymes were cloned and expressed in Pichia pastoris and further provided with crude glycerol as a carbon source for cost-effectiveness. Subsequently, the expressed enzymes were verified for their in vitro degossypolyzation ability against CSM. Moreover, the process parameters of enzymatic degradation will be statistically optimized for the maximal reduction in gossypol content of CSM. [Wiki](https://2021.igem.org/Team:NIT_Warangal)https://static.igem.org/peertube/streaming-playlists/hls/2c0420cb-ba7b-4232-b7f6-43ca83b88694/bdf3e4cd-cbb0-4a10-9c2b-2272595b721d-master.m3u8https://video.igem.org/videos/embed/6rfm2krDRQ9aX1BfzY4gYQ11250592021-10-31T07:05:48.471ZNITWarangalMalnutritionGossypolFoodAndNutritionYES2021 Team PresentationsNOhttps://video.igem.org/w/gjYWZNNTYZxEQ45PccytKFhttps://video.igem.org/lazy-static/thumbnails/6bef94ae-be42-40fc-b4b7-633cc3bc738e.jpgZJUT-China: CRISPR/Cas9-based Cell-Free Biosensors for RNA Biomarkers (2021) - Team Presentation ...**Title:** CRISPR/Cas9-based Cell-Free Biosensors for RNA Biomarkers **Description:** According to literature, various RNA molecules in urine or blood have proven to serve as biomarkers for the diagnosis and prognosis of various diseases. Herein, we are developing a cell-free RNA biosensor which comprises a cell-free system, engineered DNA transcription templates and RNA-responsive CRISPR/Cas9 System. Once the sensor is exposed to specific RNA, the visible outputs from deGFP can be visualized by naked eyes.We hope our project will provide patients with a simple, safe, low-cost diagnostic method. [Wiki](https://2021.igem.org/Team:ZJUT-China)https://static.igem.org/peertube/streaming-playlists/hls/7c1f9037-7930-47e7-82c4-f76870616201/babab74d-9258-43ca-a167-f5fe89517b53-master.m3u8https://video.igem.org/videos/embed/gjYWZNNTYZxEQ45PccytKF112101232021-10-31T07:44:46.448ZCell-FreeCRISPR/Cas9BiosensorRNABiomarkerYES2021 Team PresentationsNOhttps://video.igem.org/w/mYzdds4GYMU74UA5MbkqHmhttps://video.igem.org/lazy-static/thumbnails/df7be217-029a-4562-93be-d7a6a6ab99a2.jpgBIT-China: Creative Tasting Officer (2021) - Team Presentation [English]**Title:** Creative Tasting Officer **Description:** Taste is the soul of food. Food companies all over the world are looking for better ways to quantify the basic flavors of newly developed food products. In the food industry, human sensory panel and electronic tongue are most commonly used to evaluate taste. However, human sensory is costly and subjectively affected, while one electronic tongue cannot measure the taste of multiple food. This year BIT-China devotes to design a Creative Tasting Officer-a yeast cell biosensor to quantify the basic tastes of umami, sweetness and bitterness. Genetic circuits are designed to express human taste receptors heterologously in Saccharomyces cerevisiae, and the intensity of fluorescences would quantitively reflect the respective taste degree of food samples. Furthermore, we develop a series of Soybean based Creative Seasonings and a Flavor Card Website to help people discover their favorite taste. Everyone can click the link and find the satisfying flavor with personalized color panel!!! [Wiki](https://2021.igem.org/Team:BIT-China)https://static.igem.org/peertube/streaming-playlists/hls/a9dce41d-a8d7-41b8-bf4f-3905b1bcad76/76d74158-088c-47cc-abd1-b3cc81364a15-master.m3u8https://video.igem.org/videos/embed/mYzdds4GYMU74UA5MbkqHm12000692021-10-31T07:51:09.759ZFoodAndNutritionChinaYES2021 Team PresentationsNOhttps://video.igem.org/w/fp9drRMauP1SQfeiZowUKJhttps://video.igem.org/lazy-static/thumbnails/11feb818-5e84-454b-87b9-a7713722ceee.jpgAustin_UTexas: OCTOPUS (Ocean Clean-up Targeting Oil and Plastics Using Syntheti... (2021) - Team...**Title:** OCTOPUS (Ocean Clean-up Targeting Oil and Plastics Using Synthetic-biology) **Description:** Ocean pollution by crude oil and its derivative, plastic, is a pervasive environmental issue. With OCTOPUS, we intend to create a P1 phage-based system for delivering surfactant and plastic-degradation genes to marine bacteria to disperse oil slicks and degrade PET plastics, creating more accessible droplets and simple hydrocarbons to allow both pollutants to be metabolized by native hydrocarbon-degrading marine bacteria. We are focusing on the surfactant genes Ranaspumin-2 and Latherin which work individually, and the plastic-degrading genes PETase and MHETase which work together. Using Golden Gate assembly, we are creating plasmids containing either surfactant or plastic-degrading genes plus a packaging sequence that allows P1 to take up the plasmid. Once these phages have been successfully produced, we will analyze their lysates with a variety of assays such as the oil spreading assay for measuring surfactant activity and the blue-dye assay for measuring plastic degradation. [Wiki](https://2021.igem.org/Team:Austin_UTexas)https://static.igem.org/peertube/streaming-playlists/hls/749b1c40-fda2-4d16-8c18-85a8a2e5eea8/6d2242ab-f2e1-4c41-962d-41c154bf273b-master.m3u8https://video.igem.org/videos/embed/fp9drRMauP1SQfeiZowUKJ11570512021-10-31T08:04:12.546ZYES2021 Team PresentationsNOhttps://video.igem.org/w/fWi16JG6XvdQMdPokF9rtyhttps://video.igem.org/lazy-static/thumbnails/c871a4d5-edc0-4877-abfc-f560e46608bf.jpgMarburg: OpenPlast - Establishing cell-free systems from chloroplasts as rapid p... (2021) - Team...**Title:** OpenPlast - Establishing cell-free systems from chloroplasts as rapid prototyping platforms for plant SynBio **Description:** Climate change is threatening many of the crops we rely on. To ensure stable food supply, engineered crops will play a major role in our future agriculture, but crop development currently takes about a decade. In our project OpenPlast, we develop cell free systems (CFS) from chloroplasts of different plants, including various crops. Showing that they can be employed as prototyping platforms to characterize genetic constructs, these systems drastically reduce testing times. We use a machine learning guided approach to optimize reaction mixture composition and create a collection of GoldenGate based chloroplast parts to be characterized in our CFS. This toolbox includes regulatory elements for chloroplasts of plants so far heavily underrepresented in the registry. After successful chloroplast transformation, we want to show that data generated in our systems is comparable to in vivo data, proving that our systems can efficiently be used as prototyping platforms for plant SynBio. [Wiki](https://2021.igem.org/Team:Marburg)https://static.igem.org/peertube/streaming-playlists/hls/78f4951e-4146-4755-acbf-a89a94b21d52/3494e253-bc5a-45ab-9536-81c9b4ae42c3-master.m3u8https://video.igem.org/videos/embed/fWi16JG6XvdQMdPokF9rty1156013792021-10-31T08:30:26.369ZCell-FreePhototrophPlantToolboxChloroplastYES2021 Team PresentationsNOhttps://video.igem.org/w/idLWk1a8dy6SKPrSBB27ZUhttps://video.igem.org/lazy-static/thumbnails/34d10d42-ecbf-4470-8982-ae5e002818e3.jpgKCL_UK: Developing Novel Strategies to Advance the Treatment of Spinal Cord Inju... (2021) - Team...**Title:** Developing Novel Strategies to Advance the Treatment of Spinal Cord Injuries **Description:** Spinal cord injuries (SCI) result from spinal cord damage and are characterized by nerve degeneration, growth inhibition and inflammation at the lesion site. As the central nervous system has limited regenerative abilities, neural recovery plateaus and a glial scar forms inhibiting axonal regeneration. Between 250,000 to 500,000 individuals worldwide are impacted yearly by life-altering repercussions, including paralysis. Our project focuses on developing a therapy for SCI through the convergence of synthetic biology, recombinant protein technology and regenerative medicine. We have designed a personalised 3D-bioprinted polycaprolactone scaffold, with growth-supporting topographical features for implementation alongside our synthetic mussel foot protein bioadhesive. This multidirectional approach ensures our scaffold remains fixed and encourages axonal regeneration. Furthermore, we have incorporated the use of our optimised chondroitinase ABC enzyme to enhance functional recovery and improve our treatment. Our enzyme degrades chondroitin sulfate proteoglycans and has the potential to improve axonal sprouting following SCI. [Wiki](https://2021.igem.org/Team:KCL_UK)https://static.igem.org/peertube/streaming-playlists/hls/8b73f9c5-d417-41a3-be52-dd271483102e/56a341e9-fdd4-480b-8ae4-b64d9b732160-master.m3u8https://video.igem.org/videos/embed/idLWk1a8dy6SKPrSBB27ZU119703682021-10-31T09:31:10.254ZEuropeTherapeuticsUnitedKingdomYES2021 Team PresentationsNOhttps://video.igem.org/w/qFgvqb4qg8KaVUQ5fNNvMehttps://video.igem.org/lazy-static/thumbnails/de99baba-3805-457e-b7a0-f30fd98b500f.jpgHK_GTC: PETase & Related Analogous Chimera Transfused in Computer & AI Learning (2021) - Team Pre...**Title:** PETase & Related Analogous Chimera Transfused in Computer & AI Learning **Description:** Plastic pollution has been a global issue since the last century. In this study, we provide solutions to alleviate the plastic pollution problem from multiple perspectives. We developed a dual enzyme system as chimeras between PETase and MHETase to degrade polyethylene terephthalate (PET) into its constituent monomers. The performance of PETase and MHETase cocktail mixtures is also compared for the extent of hydrolysis of amorphous PET film, and the mixture exhibits improved depolymerization activity compared with the single enzyme. A survey of 60 items, aimed to investigate knowledge, values and actions of secondary students towards plastic pollution, was designed and conducted in 4 secondary schools. The findings suggest the need for environmental education to engage students to take part in preserving the natural environment. Drone and AI technology was applied to train and develop a deep learning PET bottle detection model, which maps plastic pollution on beaches. [Wiki](https://2021.igem.org/Team:HK_GTC)https://static.igem.org/peertube/streaming-playlists/hls/c7d6e43a-2ba0-4ee7-b194-8fab988ed523/f8cc26be-b68b-481e-8817-e341efcf2064-master.m3u8https://video.igem.org/videos/embed/qFgvqb4qg8KaVUQ5fNNvMe12000502021-10-31T10:45:40.380ZAIdeeplearningPETbottle-detectionmodelDepolymerisationPlasticpollutionPETase-MHETasechimerasYES2021 Team PresentationsNOhttps://video.igem.org/w/jZhzf339B9UwkM11ReLCJbhttps://video.igem.org/lazy-static/thumbnails/bf3f2b45-d8fc-4b3c-be27-e8c281b97365.jpgTec-Monterrey: Diagnosgene (2021) - Team Presentation [English]**Title:** Diagnosgene **Description:** Agave is a crucial part of Mexico s culture, ethnicity, and economy. In our country, nearly 558 municipalities are dedicated to its production, and its use for the manufacture of tequila generates a net income of more than 1 billion USD every year, but its production faces an obstacle: the wilting of agave, which is caused by a diversity of fungi and leads to the eventual death of the plant. Current detection systems are either visual or laboratory examinations, but the process can take up to three weeks, and by that time the infection can be spread through the whole land. Our proposal, Diagnosgene, consists of a rapid, easy-to-use, early detection system which can be implemented on the field. The detection which occurs within a cell-free system, is accomplished by the usage of toehold switches, which are RNA tools that get specifically attached to a given complementary sequence. [Wiki](https://2021.igem.org/Team:Tec-Monterrey)https://static.igem.org/peertube/streaming-playlists/hls/99c41ab5-4a75-4028-9fe6-350585a201ee/65bea5ca-490c-496f-8716-d2dce3b852a5-master.m3u8https://video.igem.org/videos/embed/jZhzf339B9UwkM11ReLCJb10570902021-10-31T11:14:02.611ZToeholdSwitchesEnvironmentDiagnosticsAgaveYES2021 Team PresentationsNOhttps://video.igem.org/w/6R4VaKgKqXkFKwWTJ3JUsfhttps://video.igem.org/lazy-static/thumbnails/ed158133-98c6-466b-b6cb-a9ee3635ae1a.jpgRio_UFRJ_Brazil: Ammit: the new serological diagnosis strategy for arboviroses (2021) - Team Pres...**Title:** Ammit: the new serological diagnosis strategy for arboviroses **Description:** Dengue flavivirus (DENV) is responsible for many deaths worldwide. The existing diagnostic assays are non-specific and may cross-react with other flaviviruses, such as Zika which leads to false-positive results in serological tests. To solve this problem, we developed Ammit: a chimeric protein made from DENV epitopes, used as an antigen to capture anti-Dengue antibodies. Based on the bioengineering cycle, we selected the most promising epitopes for Ammit s design. For this, we analyzed its structure and binding to antibodies using different computational tools. The DNA sequence of the best protein was synthesized and cloned into a plasmid. After transformation of E. coli, expression was induced and the protein was purified. Next, we tested the binding of Ammit to commercial anti-DENV2 antibodies. We also consulted professionals to verify the project's impact on complications due to misdiagnosis. Eventually, Ammit will constitute a point of care device that will provide fast and specific results. [Wiki](https://2021.igem.org/Team:Rio_UFRJ_Brazil)https://static.igem.org/peertube/streaming-playlists/hls/2f578d41-326b-4bcb-8339-16bf864d77f2/dceb1af3-318b-4caa-ba62-38ced0ea7595-master.m3u8https://video.igem.org/videos/embed/6R4VaKgKqXkFKwWTJ3JUsf11140572021-10-31T11:35:14.110ZYES2021 Team PresentationsNOhttps://video.igem.org/w/54Ktx8AqYFVXZ3mEQJz4rGhttps://video.igem.org/lazy-static/thumbnails/ae647df7-a581-4225-98f7-9730fef8c2a1.jpgLethbridge: No title (2021) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2021.igem.org/Team:Lethbridge)https://static.igem.org/peertube/streaming-playlists/hls/20ea9406-ddb3-4d73-aafe-6df2539a3e86/47346168-eb2d-4ee4-8fce-29cad7e227b2-master.m3u8https://video.igem.org/videos/embed/54Ktx8AqYFVXZ3mEQJz4rG11980312021-10-31T11:55:10.818ZYES2021 Team PresentationsNOhttps://video.igem.org/w/esCrJVdwMqvdznrVKWdXkJhttps://video.igem.org/lazy-static/thumbnails/0793e768-a6f0-4d67-a719-ef5bc635b594.jpgVilnius-Lithuania: AmeBye: prevention and detection tools for eradication of inf... (2021) - Team...**Title:** AmeBye: prevention and detection tools for eradication of infectious disease amebiasis **Description:** Every year about 50 million people develop a symptomatic form of infectious disease amebiasis, and 100 000 die. Although the infection is most common in developing countries, it is relevant to the whole world as travelers and immigrants disseminate the infection. The annual rates, lack of publicly available diagnostic tests, inexistent prevention tools, and deadly consequences of pathogenesis progression have inspired us to create effective prevention and sensitive diagnostic tools to improve the control of this infection. The first solution - probiotic bacteria that synthesize naringenin - a compound that negatively affects the viability of E. histolytica. This would prevent the spread of amebiasis by asymptomatic people and the development of the infection to an invasive form. The second - a rapid diagnostic test, which is based on aptamers and is specific to ameba secreted proteins. This test would enable accurate and specific detection of the invasive E. histolytica infection. [Wiki](https://2021.igem.org/Team:Vilnius-Lithuania)https://static.igem.org/peertube/streaming-playlists/hls/6cfe9992-0e6f-4e12-ba72-67a02c7aed14/cd0f5568-4795-4b76-8dca-4c4cb01ca8a1-master.m3u8https://video.igem.org/videos/embed/esCrJVdwMqvdznrVKWdXkJ119902402021-10-31T12:20:31.355ZYES2021 Team PresentationsNOhttps://video.igem.org/w/mCbBBT9Nsia7ruY4PfQXBLhttps://video.igem.org/lazy-static/thumbnails/c35578c7-8a1e-4c4a-8d97-80bebb0a07e8.jpgLeiden: DOPL LOCK - unlock the potential of GMOs (2021) - Team Presentation [English]**Title:** DOPL LOCK - unlock the potential of GMOs **Description:** A major challenge in synthetic biology is the containment of genetically modified organisms (GMOs) outside of the laboratory. This includes restraining the physical spread of the organism and transfer of synthetic genes, via horizontal gene transfer (HGT). This challenge remains as regulatory bodies require sound evidence on the safety of GMOs which is difficult due to the lack of knowledge upon release. Additionally, the absence of risks is not necessarily a definitive proof of safety. Therefore, industry is unwilling to invest and scientists only rarely get permission to gather large-scale data. Here, DOPL LOCK can make the difference: we propose a mutually dependent double plasmid lock which will minimize HGT and the spread of GMOs. Our goal is to provide an open-source, standardised, modular and widely applicable Safe-by-Design biocontainment system of GMOs in non-contained applications. With DOPL LOCK, we aim to drive bio-safety innovations, accelerating the field of synthetic biology. [Wiki](https://2021.igem.org/Team:Leiden)https://static.igem.org/peertube/streaming-playlists/hls/a7041710-d1ab-40f0-bbd3-ca787ad46656/a0525c60-dc64-49b7-8d71-265dde0b904e-master.m3u8https://video.igem.org/videos/embed/mCbBBT9Nsia7ruY4PfQXBL9830952021-10-31T12:43:53.857ZFoundationalBiosafetyHorizontalGeneTransferHGTYES2021 Team PresentationsNOhttps://video.igem.org/w/29v6fsPtsQSYECL4zUnDPfhttps://video.igem.org/lazy-static/thumbnails/17a50fa4-703b-4441-b9c9-4c830573ffd6.jpgMcMaster: Genetically Modified Bacteria for Targeted Elimination of Adherent-inv... (2021) - Team...**Title:** Genetically Modified Bacteria for Targeted Elimination of Adherent-invasive Escherichia coli in Inflammatory Bowel Disease **Description:** Inflammatory bowel disease (IBD) is a group of immune-related diseases, characterized by chronic inflammation and severe tissue damages in the human gastrointestinal tract. Therapeutics developed using synthetic biology methods showed some efficacy in laboratory studies but failed to produce clinically relevant results. In this project, we performed a comprehensive literature review of recent advancements in the field and we proposed the use of bacteriocin to target the pathogenic bacteria adherent-invasive Escherichia coli (AIEC), which are closely involved in the development of IBD. We constructed a genetic circuit that can simultaneously detect the inflammation marker nitric oxide, and a pathogen-specific quorum sensing factor named autoinducer-3. Upon activation, the genetic circuit expresses colicin E1 and E9, two bacteriocins that can selectively eliminate the AIEC. We designed detailed experimental workflows for circuit construction through Gibson assembly and for functional verification. A mathematical model was also established to predict the outcomes of our design. [Wiki](https://2021.igem.org/Team:McMaster)https://static.igem.org/peertube/streaming-playlists/hls/09490438-1ed2-4d75-9ada-fe135fb537d0/dede5811-2fb2-4cd6-8055-5a1972d613eb-master.m3u8https://video.igem.org/videos/embed/29v6fsPtsQSYECL4zUnDPf11940382021-10-31T13:06:46.654ZYES2021 Team PresentationsNOhttps://video.igem.org/w/grEj4MC6MpaTbArPGG4baQhttps://video.igem.org/lazy-static/thumbnails/23fdf1a9-7f19-41f1-88f9-df83b488158d.jpgIISER_Berhampur: CODE-M : Cas Optimised DEvice for MDR-TB detection (2021) - Team Presentation [E...**Title:** CODE-M : Cas Optimised DEvice for MDR-TB detection **Description:** In our project, we aim to make a rapid molecular diagnostic kit for early detection of TB and MDR-TB. Our diagnostic kit will first detect the presence of Mycobacterium tuberculosis in the sample via LAMP colorimetric assay. Along with detecting the presence of TB, it will also provide DNA fragments for mutation analysis for MDR-TB detection. Studies have shown the formidable ability of Cas14 to detect SNPs. We intend to use this property to detect the key MDR-TB mutations through specially designed guide RNA. The gRNA will act against the selected genes and analyze the results by detecting the fluorescence triggered by Cas14 complex. We propose to use an integrated hardware device for detecting the fluorescence emission which will also give the final diagnostic report. Our ultimate goal is to reduce the cost of diagnosis and provide a point-of-care system and make our kit accessible to most of the patients. [Wiki](https://2021.igem.org/Team:IISER_Berhampur)https://static.igem.org/peertube/streaming-playlists/hls/7d0e48d0-8f99-4fbd-ba30-ed5fd3d295da/8b0b672e-5bf8-42c5-ac17-e8d44bc1e9d5-master.m3u8https://video.igem.org/videos/embed/grEj4MC6MpaTbArPGG4baQ11990692021-10-31T13:34:12.766ZYES2021 Team PresentationsNOhttps://video.igem.org/w/t7UMDHa5Ku1kEniyZvQenhhttps://video.igem.org/lazy-static/thumbnails/8760f375-01ba-4d64-bca2-b80fd7f50f4a.jpgMoscow: miPression - the diagnostic test system for depression detection based o... (2021) - Team...**Title:** miPression - the diagnostic test system for depression detection based on CRISPR/Cas. **Description:** We are the Moscow team, and the main goal of our project - miPression - is to design a test system that can detect depression and distinguish it from other psychiatric diseases. Our diagnostic test will use miRNAs circulating in blood as biomarkers. We are going to measure it by two-step technology: first, rolling cycle amplification (RCA); second, the connection of two d as9, which are linked with the half of GFP, to the product of the RCA. The concentration of our target miRNA will be defined based on the brightness of fluorescence. As a result, our project will help to solve the problem of misdiagnosed and undiagnosed cases of depression. In the long term, our development may help to reduce public stigmatization and break down false stereotypes about mental disorders. [Wiki](https://2021.igem.org/Team:Moscow)https://static.igem.org/peertube/streaming-playlists/hls/db9dbcd5-39da-4141-9746-659a993ada16/75067e4b-98a5-4213-be6c-59a3843e7ec2-master.m3u8https://video.igem.org/videos/embed/t7UMDHa5Ku1kEniyZvQenh9930702021-10-31T14:30:17.862ZMirnaDepressionCrispr/casYES2021 Team PresentationsNOhttps://video.igem.org/w/2hDdbuj9PZgFTwfdKQNJoshttps://video.igem.org/lazy-static/thumbnails/c0f1715a-587a-4fd1-84b3-cd3932cea798.jpgBritish_Columbia: DetecTME: Untangling the immuno-modulated tumour microenvironm... (2021) - Team...**Title:** DetecTME: Untangling the immuno-modulated tumour microenvironment using a tumour-colonizing bacterial vector and reporter system **Description:** Immunotherapies are cancer treatments which activate the immune system against the tumour. While very effective in some patients, many do not respond to immunotherapy. To personalize treatment, tissue biopsies are used to profile tumour immune activity and inform likelihood of immunotherapy response but are invasive and prone to sampling bias. Salmonella bacteria naturally colonize tumours, and have been proven safe as a therapeutic in clinical trials. Our project creates an in vivo Salmonella-based biosensor for minimally invasive diagnosis and real-time monitoring of tumour immune activity. We construct a functional screening system to discover promoters regulated by tumour immune markers across the Salmonella genome, and implement an AND-gate with a split-operon technique to detect multiple biomarkers. The biosensor will be adaptable to detect other clinically relevant biomarkers, and to deliver therapeutics. This project is a gateway to a multifunctional platform to support the growth of immunotherapy and personalized medicine [Wiki](https://2021.igem.org/Team:British_Columbia)https://static.igem.org/peertube/streaming-playlists/hls/0a6bf870-7705-4778-ab46-efdd7537230e/7af6f136-396f-4dd2-bb0e-a70a1306ef2b-master.m3u8https://video.igem.org/videos/embed/2hDdbuj9PZgFTwfdKQNJos114701932021-10-31T15:00:16.099ZDetecTMETumourMicroenvironmentTumourColonizingBacteriaYES2021 Team PresentationsNOhttps://video.igem.org/w/iEN2QXKPwXd15gdiMxQzuDhttps://video.igem.org/lazy-static/thumbnails/c6d2c940-88fe-4145-9121-827e91661150.jpgUChicago: LaccXa (2021) - Team Presentation [English]**Title:** LaccXa **Description:** Pharmaceutical pollution is a major problem that threatens the integrity of Lake Michigan, the largest freshwater lake in the world. One such pollutant is triclosan, a commonly found antifungal and antibacterial agent. While current wastewater treatment plants are able to separate this molecule from water, it is often incorporated in sludge and used as compost where it can find its way back into our waterways. That s why UChicago s iGem project hopes to create an optimized enzyme called LACCXA that can chemically degrade triclosan, thus completely eliminating this pollutant rather than physically moving it to another location. Using the laccase from the fungus Trametes versicolor as a template, we employed molecular dynamics simulations from GROMACS to analyze active site binding activity at wastewater treatment plan conditions to inform potential mutations that optimize laccase functionality. [Wiki](https://2021.igem.org/Team:UChicago)https://static.igem.org/peertube/streaming-playlists/hls/8f15fd13-b4ed-4c05-aff8-a51e2d8730f1/41e7ea32-a9c4-46a3-9b6b-ca88a694f2e1-master.m3u8https://video.igem.org/videos/embed/iEN2QXKPwXd15gdiMxQzuD11390242021-10-31T14:07:46.375ZYES2021 Team PresentationsNOhttps://video.igem.org/w/6rRNqJVviaPyaWvGKvNs45https://video.igem.org/lazy-static/thumbnails/68a9ca92-4cde-4a34-a355-fe4b83f07c96.jpgECUST_China: Magic Blue (2021) - Team Presentation [English]**Title:** Magic Blue **Description:** Phycocyanin is a kind of rare natural blue pigment and has a broad development and application prospect. It has great value in food, medicine, reagent,cosmetics and other fields. But phycocyanin is limited by it s high cost and instability. In order to improve the stability and cut down the cost of production of phycocyanin so that it can obtained more widely used. We--ECUST_China invented magic blue'. Using dual-plasmid-system to rebuild the metabolic pathway of producing phycocyanin in the host of Saccharomyces cerevisiae. In brief, our experiment includes three parts: Firstly, the construction of the expression pathway of phycocyanin. Secondary, the regulator part of the expression vector. Thirdly, improvement of the thermal stability using site-directed mutagenesis. Through our project, we can make the phycocyanin get easy access to our daily life and benefit us.. [Wiki](https://2021.igem.org/Team:ECUST_China)https://static.igem.org/peertube/streaming-playlists/hls/2c19fa69-83a5-4c02-ace8-8d08240738ba/a57c2a3d-003e-4925-beb5-90561b3fddfc-master.m3u8https://video.igem.org/videos/embed/6rRNqJVviaPyaWvGKvNs4511900262021-10-31T15:35:38.777ZPHYCOCYANINYES2021 Team PresentationsNOhttps://video.igem.org/w/mfuvY9HrTR8dZ214ovESauhttps://video.igem.org/lazy-static/thumbnails/ce4a1918-0a5d-4053-b2c5-dc05e4335f46.jpgIOANNINA: Antibyeotic: Bacteria against AMR (2021) - Team Presentation [English]**Title:** Antibyeotic: Bacteria against AMR **Description:** The increasing amount of antibiotics in the environment has led to a rising number of antibiotic resistant bacteria, putting human and animal health at risk. Antibiotic use in poultry farming remains high and leads to antibiotic pollution. The problem of AMR is now a serious threat to the achievement of many of the Sustainable Development Goals as indicated by the United Nations. Defending the One Health approach, we aim to design a bacterial mechanism, which can inactivate tetracyclines and macrolides in the surrounding environment, while containing a self-destruction mechanism, activated when it has fulfilled its role. For this purpose, we partnered with iGEM IISER-Tirupati, to share their kill switch based on the action of a modified bpDNase1. The bacterial cell death is regulated by the presence of antibiotics using TetR and MphR as antibiotic sensors. Our idea could be applied in chicken manure making the final product safe and antibiotic-free. [Wiki](https://2021.igem.org/Team:IOANNINA)https://static.igem.org/peertube/streaming-playlists/hls/a3fcc290-5d97-489d-bf82-ff8915a7a16e/a0b572e3-7a97-471a-b804-66f6aa09a72a-master.m3u8https://video.igem.org/videos/embed/mfuvY9HrTR8dZ214ovESau6670752021-10-31T15:54:02.408ZYES2021 Team PresentationsNOhttps://video.igem.org/w/iVHp5DRLLFSHHwVaAWGTqnhttps://video.igem.org/lazy-static/thumbnails/09b13912-7612-4a8f-b574-8f844a0b560e.jpgLambert_GA: AgroSENSE (2021) - Team Presentation [English]**Title:** AgroSENSE **Description:** Hydroponics is a compact modular form of agriculture that addresses food insecurity by producing nutrient-dense, high-yield crops. However, maintaining small-scale systems introduces nutrient fluctuations thus declining plant health, impeding the implementation of hydroponics in urban communities. To combat these barriers and increase the frequency of hydroponics use, AgroSENSE provides an accurate and efficient method of nutrient monitoring and pathogen detection, while simultaneously addressing United Nations Sustainable Development Goals. We utilize our phosphate and nitrate biosensors and Fusarium and Phytophthora toehold switches in conjunction with our frugal plate reader for fluorescence quantification. To safely distribute our biosensors, we developed a frugal lyophilizer to freeze-dry cell-free lysates and bacterial samples. We collaborated with the Georgia Department of Agriculture on a regulatory proposal for agricultural biosensors to address biosecurity gaps and led community-centered synthetic biology educational outreach programs. AgroSENSE allows hydroponics users to proactively adjust system maintenance, ultimately increasing harvest yields and sustainability. [Wiki](https://2021.igem.org/Team:Lambert_GA)https://static.igem.org/peertube/streaming-playlists/hls/912b4a17-02a6-4d02-9c08-d354b2f4eb51/9ed6488d-2f36-4f62-b8df-1eea38f2217d-master.m3u8https://video.igem.org/videos/embed/iVHp5DRLLFSHHwVaAWGTqn120001312021-10-31T16:26:38.905ZYES2021 Team PresentationsNOhttps://video.igem.org/w/aj1KLS8WQytFzd2tsoCUphhttps://video.igem.org/lazy-static/thumbnails/e62d7b6f-e24b-4460-96ca-4fbd2764c9b0.jpgDuesseldorf: Development of an in-field quick test for the differentiation of pl... (2021) - Team...**Title:** Development of an in-field quick test for the differentiation of plant pathogens **Description:** This year, iGEM D sseldorf sets the focus on pathogen detection and differentiation. The aim is to design an adaptable quick-test with three potential applications. Firstly, to detect common plant diseases on young plants, secondly, to detect pathogens in-field before signs of infection are even visible, with the help of multispectral imaging cameras that identify plants with reduced photosynthetic activity. Thirdly, to be able to differentiate between known diseases that are hard to identify with the naked eye. The plants can be tested with our lateral flow assay consisting of two aptamers that have been carefully selected through the SELEX process. These aptamers bind specifically to either a protein expressed during the plant s stress response or the pathogenic cell itself, precisely detecting the cause of stress. To visualize general plant stresses immediately, a reporter plant was designed, whose colour changes depending on the kind of stress it s exposed to. [Wiki](https://2021.igem.org/Team:Duesseldorf)https://static.igem.org/peertube/streaming-playlists/hls/4b6619d5-3ef6-46b6-b3f1-ead53a925d16/5c00cbf5-845b-4307-bfe9-ed04890ff2f0-master.m3u8https://video.igem.org/videos/embed/aj1KLS8WQytFzd2tsoCUph7560372021-10-31T16:52:52.303ZCerexSelexTestPlantsPathogensYES2021 Team PresentationsNOhttps://video.igem.org/w/pEm1mE3dmu5CGzNriJLr9phttps://video.igem.org/lazy-static/thumbnails/840fde68-efa0-4490-81e8-0a49d5b05667.jpgEstonia_TUIT: SALSASMILE (2021) - Team Presentation [English]**Title:** SALSASMILE **Description:** Around 2.3 billion people suffer from caries. The preventive measures include dietary restrictions, exposure to adequate doses of fluoride, and tooth brushing. However, inappropriate tooth brushing may cause dental cavities and harm gums. Therefore, safer and unified oral hygiene methods are in demand. Tooth decay is caused by bacteria that bind the human SALSA protein on teeth' surface, forming a biofilm and producing acids that destroy teeth. In SALSASMILE, we engineer a protease to target the SALSA protein. We expect that cleaving SALSA will remove bacteria even from the inaccessible areas, making oral hygiene more efficient. We develop a simple assay in yeast to select for proteases that cleave the desired sequence. Combined with deep mutational scanning or directed evolution, this is a powerful tool to engineer proteases. Everyone, especially children, people with orthodontic cases, or disabled individuals could use SALSASMILE alongside tooth brushing for improved oral hygiene. [Wiki](https://2021.igem.org/Team:Estonia_TUIT)https://static.igem.org/peertube/streaming-playlists/hls/bf9cc81a-fbee-4726-8323-432c42e15dcb/d86796c5-b3a7-46b3-94d8-02ee12771cde-master.m3u8https://video.igem.org/videos/embed/pEm1mE3dmu5CGzNriJLr9p11660292021-10-31T17:11:32.532ZPAPICSALSAPerfectsmileProteaseEscapeRoomYES2021 Team PresentationsNOhttps://video.igem.org/w/c5ZNq4w9k13CVMH3ckuUtwhttps://video.igem.org/lazy-static/thumbnails/e36906bf-5399-4ea3-a612-211eb524107f.jpgIISER-Tirupati_India: OviCloak: A Novel Contraceptive for Uterus Owners (2021) - Team Presentatio...**Title:** OviCloak: A Novel Contraceptive for Uterus Owners **Description:** The modern contraceptives used at present have improved efficiency, but they have certain drawbacks that need immediate attention both from a human health and environmental perspective. Keeping in mind the importance of contraception globally, we aim to develop a safe and environment-friendly contraceptive for uterus owners by utilizing commensal bacteria of the fallopian tubes. Using synthetic biology, we plan to equip the bacteria with a progesterone sensing system that regulates the production of ovastacin, an ovum-specific human protease. Ovastacin acts as a contraceptive molecule by specifically targeting the outer layer of the ovum to prevent sperm entry. The bacteria is also engineered with a xylose inducible kill switch to ensure reversibility of the contraception and a blue-light inducible kill switch to kill the bacteria upon any environmental release. OviCloak aims to offer its users control over their fertility and uphold their fundamental rights without compromising their health or the environment. [Wiki](https://2021.igem.org/Team:IISER-Tirupati_India)https://static.igem.org/peertube/streaming-playlists/hls/59c71efa-b82e-443a-91c4-97c400759dfc/5376063f-5276-4e80-a79c-f0335bbb380c-master.m3u8https://video.igem.org/videos/embed/c5ZNq4w9k13CVMH3ckuUtw117502122021-10-31T17:35:27.605ZLARCOviCloakContraceptiveModernContraceptiveCommensalsYES2021 Team PresentationsNOhttps://video.igem.org/w/tLU1HaaWg4hdLWmrwfXn9Ghttps://video.igem.org/lazy-static/thumbnails/2aef69da-e770-481b-b1df-285637f79071.jpgBUCT: Delivering gaba and 5Htp through fatty acid lowering (DeliGHtFAL) (2021) - Team Presentatio...**Title:** Delivering gaba and 5Htp through fatty acid lowering (DeliGHtFAL) **Description:** The fast-paced life of contemporary society renders people suffer from obesity and anxiety seriously . Focusing on two grand challenges: overwork-induced obesity and anxiety, as they reflect disorders in both gastrointestinal and nervous systems, we based our approach on the current theories of the brain-gut axis . *E. coli* Nissle 1917 was used as a chassis with enhanced capacity of -oxidation of fatty acid, thereby increasing fatty acids consumption from diets to facilitate weight loss. Meanwhile, with a synthetic biology thinking, GABA and 5-HTP with anxiety-relieving effects were synthesized from the catabolic products of fatty acids in our engineered bacteria. [Wiki](https://2021.igem.org/Team:BUCT)https://static.igem.org/peertube/streaming-playlists/hls/e0eb85fc-1f53-4ccb-be77-9bffe3f35064/71bc766b-103b-4e55-8b15-9a05e2b25721-master.m3u8https://video.igem.org/videos/embed/tLU1HaaWg4hdLWmrwfXn9G10720382021-10-31T18:00:00.544ZFat,ProbioticsYES2021 Team PresentationsNOhttps://video.igem.org/w/nwyavmzSGommZxUz9k2nynhttps://video.igem.org/lazy-static/thumbnails/80f434b3-26e8-4d9b-ae1e-e09946159187.jpgFudan: Candicamera (2021) - Team Presentation [English]**Title:** Candicamera **Description:** Candida albicans cause diseases as vaginal infections, affecting up to 75% of women. However, current detection methods are either professional, time-consuming, inaccurate, or expensive. We have develop 'Candicamera', a product that allows rapid detection of Candida albicans in resource-limited settings and for point-of-care analysis. By applying loop-mediated isothermal amplification (LAMP) combined with lateral flow assay (LFA), our detection method is accurate, fast and independent of expensive equipments. Besides, We designed gene circuits using new iGEM Registry parts gp2 and gp5.7 which reduce the background protein production of engineering bacteria and specifically produce the enzyme entailed in detection so that the cost can be reduced tremendously, thus providing access for women in resource-limited areas to routinely perform the test. We carried out extensive human practices to bring forward our project as well as synthetic biology into people. [Wiki](https://2021.igem.org/Team:Fudan)https://static.igem.org/peertube/streaming-playlists/hls/ae540bf2-56f4-4650-a12f-91e095fa23e1/908c7787-1f1a-4204-9a0e-93aad369c7a8-master.m3u8https://video.igem.org/videos/embed/nwyavmzSGommZxUz9k2nyn114101192021-10-31T18:10:00.530ZDiagnosticCandidaAlbicansYES2021 Team PresentationsNOhttps://video.igem.org/w/seGYLBPKySrvcWHAQBpq8Rhttps://video.igem.org/lazy-static/thumbnails/4cf3f053-0998-41d0-a90f-8d0121eff5af.jpgStanford: Mitigation of Grapefruit-Drug Interaction through Engineered Gut-Colon... (2021) - Team...**Title:** Mitigation of Grapefruit-Drug Interaction through Engineered Gut-Colonizing Yeast **Description:** The grapefruit-drug interaction refers to unpredictable adverse effects that occur when certain drugs are taken concurrently with grapefruit products. Grapefruits contain a family of compounds called furanocoumarins, which are known to repress CYP3A4, an enzyme involved in the metabolism of a large percentage of drugs prescribed today. This interaction causes increased bioavailability of some drugs and can result in unintentional drug overdose. Given the prevalence and popularity of grapefruit products and the number of affected drugs, our project is designed to provide passive negation of the grapefruit-drug interaction. Our plan is to put the gene for CYP6B1, an enzyme from the black swallowtail butterfly that breaks down furanocoumarins, into brewer s yeast and colonize the human gut microbiome with our modified microbe to provide continuous mitigation and resilience to the drug interaction through the gene s expression. [Wiki](https://2021.igem.org/Team:Stanford)https://static.igem.org/peertube/streaming-playlists/hls/d477873a-c4ff-4613-85ad-72deba79e0ef/ec3bed9b-d9a1-4ff7-84e6-22f5a9e4bb9f-master.m3u8https://video.igem.org/videos/embed/seGYLBPKySrvcWHAQBpq8R10510602021-10-31T18:25:40.558ZYES2021 Team PresentationsNOhttps://video.igem.org/w/72cuDBHjoTd5eKqJZPeWJvhttps://video.igem.org/lazy-static/thumbnails/64a3fcc7-bb97-4876-b6f4-c5f0d8921995.jpgKU_Leuven: Development of a continuous directed evolution platform for in vitro-... (2021) - Team...**Title:** Development of a continuous directed evolution platform for in vitro-cultured plant cells **Description:** Targeted continuous evolution, using a platform based on CRSIPR-Cas-based nickase and error-prone DNA polymerase (a.k.a. EvolvR), is a powerful approach to rapidly evolve specific phenotypes with minimal user intervention. By establishing this method in planta, we seek to accelerate the evolution of needed plant phenotypes such as (a)biotic stress tolerance. EvolvR, targeted to a gene of interest by a specific guide RNA, continuously diversify the underlying DNA, with cells constantly under selection for improved variants. We have confirmed the efficiency of the approach in E. coli, validated it in a plant-based cell-free system and confirmed its functionality in Tobacco BY-2 cell culture. We have also established mathematical approaches to model and optimize the selection regimens to maximize the efficiency of the pipeline. Our in silico, in vitro and in vivo results further demonstrate the potential of EvolvR to plant biotechnology improving crops and developing new plant-based applications. [Wiki](https://2021.igem.org/Team:KU_Leuven)https://static.igem.org/peertube/streaming-playlists/hls/30c1a8bc-3f4d-41e7-bbac-8ed017521951/63f9e171-0066-4d0e-9c89-8e76f679427d-master.m3u8https://video.igem.org/videos/embed/72cuDBHjoTd5eKqJZPeWJv9500392021-10-31T18:46:13.871ZYES2021 Team PresentationsNOhttps://video.igem.org/w/9twUbpH4rb4u3qYUN3fZaxhttps://video.igem.org/lazy-static/thumbnails/25f41bd3-4509-4ba0-a636-7c61857bf10d.jpgEcuador: AgroBactory 593: a bacterial platform for producing specific biopesticides (2021) - Team...**Title:** AgroBactory 593: a bacterial platform for producing specific biopesticides **Description:** Plant diseases are one of the main hazards to agriculture. One out of three Cavendish bananas being eaten every day is produced in Ecuador. Fusarium wilt, caused by Fusarium oxysporum f. sp. cubense (FOC) is the major threat to banana cultivars worldwide. AgroBactory 593, is a bacterial platform that produces low-cost biopesticides to fight against plant diseases. By producing and delivering double-stranded RNA molecules as biopesticides, AgroBactory 593 uses RNAi technology to silence expression of specific targets in the pathogen genome. To demonstrate the platform s effectiveness, we made a biopesticide against FOC-TR1 in vitro. Its modular design allows us to easily change the pathogens of interest, adjust the biopesticide level, and select the bacterial chassis. This way, we can optimize and customize our biopesticide providing an accessible solution for farmers and their crops against pests. AgroBactory 593 is a powerful tool to guarantee disease-free and high-quality food for the world. [Wiki](https://2021.igem.org/Team:Ecuador)https://static.igem.org/peertube/streaming-playlists/hls/44a13bd0-b390-4851-865e-3ee45ac19f3d/8807a56c-5b00-40eb-b6e0-3d385e6f648b-master.m3u8https://video.igem.org/videos/embed/9twUbpH4rb4u3qYUN3fZax115702852021-10-31T19:10:45.107ZBananasARNiFOCTR4YES2021 Team PresentationsNOhttps://video.igem.org/w/uaMAPmBn6WenWMb1SaKdnNhttps://video.igem.org/lazy-static/thumbnails/df6a75ae-a1ac-46a6-8f95-ece3896e55b9.jpgEPFL: CuRe: Copper Bioremediation to Revitalize Vineyards (2021) - Team Presentation [English]**Title:** CuRe: Copper Bioremediation to Revitalize Vineyards **Description:** Mildew is a destructive fungal disease of plants including wine-producing grapevines. For more than a century, mildew has been treated with bio farming compatible copper-based fungicides which adhere to plant leaves. However, though only trace amounts of copper is present in wine made from treated plants, when rain washes the fungicide away, toxic levels of copper contaminate the surrounding soil, inhibiting new cultivation and biodiversity. Our goal is to remove copper from grapevine rainwater runoff to prevent this pollution. We generated yeast strains which express the normally intracellular copper-binding protein CUP1 in multiple copies and configurations on their surface to enable bioadsorption of environmental copper. As a proof-of-concept for a real-world implementation of our decontamination strategy, we have designed and built a prototype bioreactor to enable the removal of copper from rainwater by our modified yeast. We envision our solution could help protect wine growing regions from copper soil pollution. [Wiki](https://2021.igem.org/Team:EPFL)https://static.igem.org/peertube/streaming-playlists/hls/e41dadb7-a0d0-434c-89f3-a9d50ed5a428/0ecf5038-4380-4063-bd81-6e8a35acceba-master.m3u8https://video.igem.org/videos/embed/uaMAPmBn6WenWMb1SaKdnN96801162021-10-31T19:20:43.036ZYES2021 Team PresentationsNOhttps://video.igem.org/w/8x2JYGH3p6rMmdrhZRxMuYhttps://video.igem.org/lazy-static/thumbnails/b5b1475f-7730-4fe7-98ae-66d5a308a75f.jpgIISER_Kolkata: naMOOste - A novel solution to the problem of Subclinical Bovine ... (2021) - Team...**Title:** naMOOste - A novel solution to the problem of Subclinical Bovine Mastitis in dairy industry **Description:** Subclinical Bovine mastitis is a ubiquitous problem in the dairy industry. Clinical stages of this are associated with inflammation of the bovine mammary-parenchyma tissue following pathogenic infection. Whereas the early subclinical stage has invisible symptoms - making it difficult to detect and cure. Present detection techniques are either expensive, inaccessible, or time-consuming, and current treatment methods use antibiotics leading to the development of AMR in causative pathogens resulting in a lot of harm. Our team aims to develop an antibiotic-free treatment method along with a real-time cheap, colourimetric detection kit which when used at regular intervals will detect subclinical stage from milk samples. Early detection complemented with better treatment methods and hygiene maintenance can reduce the rate of disease progression. The team engaged in learning real-world problems faced by stakeholders due to bovine mastitis - tried to mitigate those in our project and spread awareness about preventing its transmission. [Wiki](https://2021.igem.org/Team:IISER_Kolkata)https://static.igem.org/peertube/streaming-playlists/hls/3d0519b4-d011-4d8a-93cd-b9dfc2c53bec/9969e914-0d37-4b23-a0c7-3fcd1e74cdcc-master.m3u8https://video.igem.org/videos/embed/8x2JYGH3p6rMmdrhZRxMuY11990962021-10-31T19:45:19.379ZMilkYES2021 Team PresentationsNOhttps://video.igem.org/w/xt1VBVWj6Sb67PLR5M4Q8Phttps://video.igem.org/lazy-static/thumbnails/6749b5e6-8c8e-4e79-96de-f48951c52d1c.jpgMoscow_City: A rapid test system of Equine herpesvirus detection based on CRISPR... (2021) - Team...**Title:** A rapid test system of Equine herpesvirus detection based on CRISPR/d as13 **Description:** Equine herpesvirus outbreaks lead to mass deaths and quarantines. Disease symptoms can be easily confused with other diseases. Current diagnosis methods - PCR-tests - are time-consuming. Therefore, we decided to create a test system based on CRISPR-Cas. It detects herpesvirus by its RNA. We use deadCas13 protein, connected by a linker with two halves of reporter protein - beta-lactamase. Two deadCas13 proteins are directed by gRNA to the RNA of the virus. When the distance between two Cas-proteins is correctly selected, two beta-lactamase proteins can fuse into a functional protein that destroys nitrocefin the solution's color changes from yellow to red. To avoid false-positive results, we use two guide RNAs. With one guide, RNA reporter protein will not become functional. We are willing to create a system that will not require any special skills to use it. Horse owners will be able to detect herpesvirus using only saliva. [Wiki](https://2021.igem.org/Team:Moscow_City)https://static.igem.org/peertube/streaming-playlists/hls/fed0f331-af96-4a48-90a8-6663b795388d/90339150-882e-41ca-86ca-c30362f9dd47-master.m3u8https://video.igem.org/videos/embed/xt1VBVWj6Sb67PLR5M4Q8P5400592021-10-31T20:03:22.304ZYES2021 Team PresentationsNOhttps://video.igem.org/w/5om7x44MZ3weFFBqABZ3DHhttps://video.igem.org/lazy-static/thumbnails/9764a776-be6d-4258-b3ec-ee93bc3119be.jpgGroningen: Bye-Monia, tackling Dutch nitrogen crisis: Reduction of Nitrogen emis... (2021) - Team...**Title:** Bye-Monia, tackling Dutch nitrogen crisis: Reduction of Nitrogen emissions by alpha-amylase production in Saccharomyces spp. **Description:** The Netherlands is producing excess nitrogen, which is harmful to nature and biodiversity. One of the main culprits for this so-called nitrogen crisis is animal agriculture, a vital income source for the Dutch economy. Our project targets ammonia emissions contributing to the crisis and aims to convert them into a beneficial feed additive. Thus, we have engineered Saccharomyces spp. to synthesize alpha-amylase, an enzyme that optimizes cattles digestion. This way, their milk production and growth will be enhanced while ammonia emissions will be reduced simultaneously. Residual ammonia will be captured by a state-of-the-art filter device, a Metal-Organic Framework (MOF), and fed back to our GMO. Furthermore, insights from artificial intelligence will be employed to optimize the engineering process. Overall, we have designed a closed sustainable circle in which waste - excess ammonia, is converted into worth - a feed additive for cattle. [Wiki](https://2021.igem.org/Team:Groningen)https://static.igem.org/peertube/streaming-playlists/hls/23834ffd-4ea9-4a33-acc6-beff5eb124ab/4e82720c-783b-4016-82d1-e6bcc63b50b6-master.m3u8https://video.igem.org/videos/embed/5om7x44MZ3weFFBqABZ3DH108802782021-10-31T20:21:59.971ZYES2021 Team PresentationsNOhttps://video.igem.org/w/txzJaM7YeXs4qpdXZpo6pEhttps://video.igem.org/lazy-static/thumbnails/18ea4fef-456a-4dfa-8fb0-352e363a1afc.jpgMines: No title (2021) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2021.igem.org/Team:Mines)https://static.igem.org/peertube/streaming-playlists/hls/df0f95f1-b550-4464-b3ca-376775fcec50/af23047b-676e-4a5b-b345-14020cbbaf3d-master.m3u8https://video.igem.org/videos/embed/txzJaM7YeXs4qpdXZpo6pE2340192021-10-31T20:39:07.552ZYES2021 Team PresentationsNOhttps://video.igem.org/w/eiVSDjmZVWtLvNrz7GRuHthttps://video.igem.org/lazy-static/thumbnails/d26b7e99-57ad-411d-9885-3de170674845.jpgSJTU-Software: An intelligent platform for DNA nano machine contriving (2021) - Team Presentation...**Title:** An intelligent platform for DNA nano machine contriving **Description:** Dry Lab can provide pre-experiment reference and guidance for wet experiments, thereby greatly improving the efficiency of the wet laboratory. Our project served wet lab in two different directions via multi tools. Firstly, conducting an in silico analysis of miscellaneous medical data, we can determine the dominant biomarkers (miRNA, mRNA, etc.) for subsequent wet experiment, thus reducing workload. Next, for the purposes of our Nano DNA machines our team have built a deep learning model to assist probe design. With the combined utilization of our tools, wet lab's productivity will be improved significantly. [Wiki](https://2021.igem.org/Team:SJTU-Software)https://static.igem.org/peertube/streaming-playlists/hls/6bc7a5ad-f305-4c11-9d7c-426c33bf23fd/e4bedd43-5b86-47e2-b088-94d8c96dcb06-master.m3u8https://video.igem.org/videos/embed/eiVSDjmZVWtLvNrz7GRuHt11810902021-10-31T20:54:39.638ZYES2021 Team PresentationsNOhttps://video.igem.org/w/79LGghaFFZtTa9imVwmjeShttps://video.igem.org/lazy-static/thumbnails/3fd08fd2-3167-4a03-8e33-4be71e99b3bf.jpgUSP-Brazil: Let.it.bee. (2021) - Team Presentation [English]**Title:** Let.it.bee. **Description:** Bees are very important for the environment and economy since they are responsible for the pollination of about 70% of crops worldwide. Some crops are completely dependent on bee pollination to exist. Since the 1990s, registers show a decrease in bee s populations, associated with multifactorial causes, such as the Colony Collapse Disorder and Acute Intoxication. One of the most worrying causes is the misuse of neonicotinoids pesticides, of which the most used is Imidacloprid. Bees when in contact with contaminated pollen take it to the colony, spreading the toxicity and causing mass deaths. To address this we developed a plant (Solanum lycopersicum) that can metabolize Imidacloprid specifically in pollen. We associated a pollen specific promoter, pLAT52, to the expression of the enzyme CYP6G1, responsible for metabolizing Imidacloprid in the pesticide resistant Drosophila melanogaster. This way pollen remains safe for pollinators while the rest of the plant is protected against pests. [Wiki](https://2021.igem.org/Team:USP-Brazil)https://static.igem.org/peertube/streaming-playlists/hls/31d0536e-0494-45c3-a432-1432589b924c/6c78fc5e-dfb0-43df-bc44-c6075fd88dd7-master.m3u8https://video.igem.org/videos/embed/79LGghaFFZtTa9imVwmjeS107002032021-10-31T21:25:02.621ZYES2021 Team PresentationsNOhttps://video.igem.org/w/wztN9GPNpzNZpsKp2qQLrghttps://video.igem.org/lazy-static/thumbnails/77d7535e-a051-4369-8d64-6df170e61c3f.jpgNYU_New_York: Flutec - Influenza Diagnostic Test (2021) - Team Presentation [English]**Title:** Flutec - Influenza Diagnostic Test **Description:** The NYU iGEM team is currently developing an affordable, portable, paper-based diagnostic device for the influenza A strain using novel techniques such as toehold switches that can be performed at home without the need for expensive laboratory equipment. Research done over the past year revealed the impact of COVID-19 on healthcare staff and services, as well as the need for expanded home testing options for common illnesses. As a response to this need, our device creates a simple method to detect influenza A with a saliva sample that can be easily distributed to aid local and global public health efforts by increasing access to care. [Wiki](https://2021.igem.org/Team:NYU_New_York)https://static.igem.org/peertube/streaming-playlists/hls/f79ed57b-4e77-4679-b5b3-573237ee25c9/930e6aae-dd0e-4de5-afca-4c2d341af430-master.m3u8https://video.igem.org/videos/embed/wztN9GPNpzNZpsKp2qQLrg10940432021-10-31T21:51:08.133ZYES2021 Team PresentationsNOhttps://video.igem.org/w/36QJqBtoqLcm1KnbecM4Nihttps://video.igem.org/lazy-static/thumbnails/0f38e749-3441-4091-95cf-c6c0c3b6b5b3.jpgMIT_MAHE: Cell-tinel (2021) - Team Presentation [English]**Title:** Cell-tinel **Description:** Our project is a modular solution for safe research and experimentation for genetically engineered organisms for application in agriculture. Our model implements a process that targets a pest and a crop on a case by case basis, and identifies ways to limit the organism within the required parameters. Our proof of concept tests stem borers and rice crops as our target pest-crop pair. We plan to use a natural endophyte of rice, Bacillus subtilis, to introduce anti-stem borer properties along with other additional benefits for the crop. The system is such that the toxin for controlling the stem borers is only expressed within the stem borer, and the endophyte will only survive within the plant and stem borer environments. [Wiki](https://2021.igem.org/Team:MIT_MAHE)https://static.igem.org/peertube/streaming-playlists/hls/1103072a-b882-4316-ad76-6efe583521c1/4370eefb-1019-4a8b-afe8-614d052beb69-master.m3u8https://video.igem.org/videos/embed/36QJqBtoqLcm1KnbecM4Ni9200832021-10-31T22:20:04.243ZYES2021 Team PresentationsNOhttps://video.igem.org/w/eoTa4VDSV6SCQ7NXAH1Ca7https://video.igem.org/lazy-static/thumbnails/f64b9f06-db8a-41a9-a401-c6cfd2f1d669.jpgHUST2-China: NANO-AI-Cleaner (2021) - Team Presentation [English]**Title:** NANO-AI-Cleaner **Description:** As the eighth epidemic, acne plagues billions of people and is becoming one of the most common skin diseases. Abnormal proliferation of Propionibacterium acnes and corresponding immune responses are the main factors causing acne. To target both factors, we engineered probiotic E.coli Nissle 1917 to produce BLP-7 with elastin like peptide(ELP) and Toll-like receptor 2 (TLR2) antagonist with ELP under infrared induction, followed by in-situ assembly of sphere-like nanostructure NANO-AI-Cleaner through ELP-mediated hydrophobic interaction. ELP showed Intelligent temperature-controlled ability and significant skin-repairing effect while BLP-7 kills P. acnes by punching holes on the membrane surface and TLR2 antagonist blocks NF-kB pathway by competing for binding to acylated lipoproteins on the surface of P. acnes. In this way, our multi-functional nanostructure achieves antibacterial, anti-inflammatory and skin-repairing effects at the same time. We have successfully constructed NANO-AI-Cleaner, providing a convincing and promising treatment strategy for acne. [Wiki](https://2021.igem.org/Team:HUST2-China)https://static.igem.org/peertube/streaming-playlists/hls/6c78b115-7b45-45f5-aeb3-98ce7c4882b0/6adce4ee-21b7-4bbd-93cf-e5e956275498-master.m3u8https://video.igem.org/videos/embed/eoTa4VDSV6SCQ7NXAH1Ca710040682021-10-31T22:40:21.626ZYES2021 Team PresentationsNOhttps://video.igem.org/w/arbU4uW4rqrefp3kZQu8bkhttps://video.igem.org/lazy-static/thumbnails/e892b7bc-7377-4704-aca1-72676d396353.jpgNUDT_CHINA: Light-mediated control of cell cycle in mammalian cells (2021) - Team Presentation [E...**Title:** Light-mediated control of cell cycle in mammalian cells **Description:** Optogenetic tools provide essential approaches to control designer cell function. Our project intends to optimize Predator Pro, a modularized protein degradation system we ve been working on in the past few years, to achieve light-mediated degradation of endogenous cyclin protein, the key regulator protein family in cell cycle, thereby manipulating cell cycle in mammalian cells. Integrating with a raspberry pie-based blue light illumination device, our system may provide novel tools for cell cycle synchronization and spatiotemporal control of cell division. Our work may provide novel tools for synthetic biology community and researchers in other fields, it will also provide new hints for treating diseases caused by cell abnormal division. [Wiki](https://2021.igem.org/Team:NUDT_CHINA)https://static.igem.org/peertube/streaming-playlists/hls/4c668edd-a3fe-4aa2-8a36-6ebab3bc8913/2d4b2d8f-261a-49b2-bd03-f7c8a81d57f3-master.m3u8https://video.igem.org/videos/embed/arbU4uW4rqrefp3kZQu8bk108402602021-10-31T23:00:55.660ZCellCycleBlueLightProteinDegradationYES2021 Team PresentationsNOhttps://video.igem.org/w/rMTNw5ww33DVuoYAiKPRVuhttps://video.igem.org/lazy-static/thumbnails/856593ef-530a-4f64-82ce-bdd5b1a2d7cb.jpgNPU-CHINA: A self lysis feed toxinicide (2021) - Team Presentation [English]**Title:** A self lysis feed toxinicide **Description:** Aflatoxin is a strong carcinogen widely existing in feed crops. Aflatoxin residues in livestock deep-processing products seriously threaten food safety. This project uses Bacillus subtilis, which is generally considered safe, as a carrier to assemble aflatoxin degradation proteins, stable-phase promoters and self-cleavage protein. Combined with the selenium-enrichment function of Bacillus subtilis, a strain of intelligent Bacillus subtilis with self cleavage function, which can simultaneously degrade aflatoxin and enrich selenium, is constructed. Finally, a new, safe and selenium rich high-value feed additive is provided. [Wiki](https://2021.igem.org/Team:NPU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/d0dcdc3c-3a26-4f9f-a93c-4ce2b5a5492a/6d6b8fbf-ace4-4128-b786-d13b4513d58c-master.m3u8https://video.igem.org/videos/embed/rMTNw5ww33DVuoYAiKPRVu11760242021-10-31T23:19:29.640ZBacillusSubtilisAuto-lysisAflatoxin-degradationSelenium-enrichmentYES2021 Team PresentationsNOhttps://video.igem.org/w/vCvULY8RGAcF8LJUxEMn3nhttps://video.igem.org/lazy-static/thumbnails/1fc5bc6b-e385-47e8-8914-4e627df3b6e8.jpgJianhua: Producing 2'-FL by Saccharomyces cerevisiae (2021) - Team Presentation [English]**Title:** Producing 2'-FL by Saccharomyces cerevisiae **Description:** 2 -Fucosyllactose (2 -FL), one of the most abundant oligosaccharides in human milk, has potential applications in foods due to its infant health benefits. Due to it is prohibitively expensive to obtain 2 -FL directly from human milk, alternative microbial production of 2 -FL is considered promising. Microbial production of 2-FL has been studied mostly in Escherichia coli. To avoid endotoxin contamination and bacteriophage infection in the fermentation process to produce 2 -FL using E. coli, Jianhua aims to produce 2 -FL by engineered Saccharomyces cerevisiae which is generally recognized as safe and has been widely used in food industries. First, using FKP to produce intracellular GDP-l-fucose. Second, Lac12 transports lactose, a fucose acceptor in 2 -FL production into cytosol of S. cerevisiae cells. Finally, FucT2, which catalyzes fucosylation of lactose into 2 -FL using GDP-l-fucose needs to be introduced. [Wiki](https://2021.igem.org/Team:Jianhua)https://static.igem.org/peertube/streaming-playlists/hls/eff23ac0-a8d2-42b2-9718-84323cf09045/8a519972-2828-4d64-8148-0d8c6645f918-master.m3u8https://video.igem.org/videos/embed/vCvULY8RGAcF8LJUxEMn3n6660332021-10-31T23:37:16.165ZHighSchool2'-FLHMOYES2021 Team PresentationsNOhttps://video.igem.org/w/c6aRywwz2bdV468in8ke1nhttps://video.igem.org/lazy-static/thumbnails/728ad9bf-e76b-4324-9c9d-fbec67bfda7b.jpgSDU-Denmark: PsiloAid (2021) - Team Presentation [English]**Title:** PsiloAid **Description:** We want to contribute to the utilization of psilocybin s absolute potential by reducing the costs of acquiring the substance for research projects. Psilocybin is currently undergoing clinical trials, to explore its potential as a treatment method for depression. However, it has shown itself to be a very difficult and expensive process to chemically synthesize psilocybin or purify it from the mushrooms. Despite recent improvements in heterologous production of psilocybin using either bacteria or yeast, current methods persist to be tedious and costly with a reduced yield. That is why we aim to construct an enhanced biosynthesis of psilocybin from tryptophan, by introducing all four different enzymes from the Funghi in Escherichia coli. After successfully producing psilocybin in E. coli, we hope to transfer this system to our ideal, non-pathogenic host organism, Rhodovulum sulfidophilum that only needs sunlight and seawater to grow, thereby making a sustainable and safe cell factory. [Wiki](https://2021.igem.org/Team:SDU-Denmark)https://static.igem.org/peertube/streaming-playlists/hls/59cd5131-5783-428e-988d-59e98e737831/bfddec46-01c9-48ed-9fe2-6357523d3533-master.m3u8https://video.igem.org/videos/embed/c6aRywwz2bdV468in8ke1n88001732021-10-31T23:59:57.539ZPsiloAidPsilocybinManufacturingYES2021 Team PresentationsNOhttps://video.igem.org/w/fXtcru5fCpm6tVMdG6ZEFKhttps://video.igem.org/lazy-static/thumbnails/1e3c7cba-0d5d-4b87-9cb7-8790c03b145a.jpgNDSU: Anti-fungal recombinant DNA in Escherichia coli for the inhibition of Rhiz... (2021) - Team...**Title:** Anti-fungal recombinant DNA in Escherichia coli for the inhibition of Rhizoctonia solani growth. **Description:** Crop fungal disease is a global issue that costs billions of dollars in lost crops every year. Crops can be especially susceptible to fungus that infect the root system, like Rhizoctonia solani. Although R. solani threatens many major crops, there are no direct treatments against the pathogen, only management strategies. This project aims to genetically engineer Escherichia coli to produce antifungal compounds which alone, or together in synergy, are effective in inhibiting the growth of R. solani. To accomplish this goal, golden gate cloning was utilized to create several E. coli strains with different antifungal genes. These modified strains were then placed in an antifungal assay with R. solani to establish inhibitory and co-inhibitory effects. Future research would explore inserting these genes in bacteria that have symbiotic relationships with crops to protect against R. solani. [Wiki](https://2021.igem.org/Team:NDSU)https://static.igem.org/peertube/streaming-playlists/hls/791e9c06-cd08-42e4-b115-7787e0452c11/ca2514ee-eb27-4a16-ac25-9c4965cf54d2-master.m3u8https://video.igem.org/videos/embed/fXtcru5fCpm6tVMdG6ZEFK9310582021-11-01T00:23:44.359ZYES2021 Team PresentationsNOhttps://video.igem.org/w/3iB2WuGWs4HUUeYH1byzZshttps://video.igem.org/lazy-static/thumbnails/57c6bbed-80c7-40e6-94b3-350ab2630200.jpgCSU_CHINA: Sweet Guard (2021) - Team Presentation [English]**Title:** Sweet Guard **Description:** Our project aims to find a new method of treating type 1 diabetes with the help of synthetic biology. Our engineered cells will be implanted subcutaneously by mature embedding technology.When the cells meet two conditions , hyperglycemia and shinning blue light, they are able to secrete insulin and make the levels ofblood sugar become lower until it gets back to normal level. However, when the level of insulin is high Insulin molecule will be combined with insulin receptor and the signal would be activated by it. Then, miRNA will be expressed and inhibit the expression of insulin. Meanwhile, because of Tet-off system, we can use tetracycline to force the loop to stop, in order to improve the safety of our design. [Wiki](https://2021.igem.org/Team:CSU_CHINA)https://static.igem.org/peertube/streaming-playlists/hls/12a782f3-f515-44d6-9234-5629331bcf88/563025de-130f-4167-b1a5-64e90387ed04-master.m3u8https://video.igem.org/videos/embed/3iB2WuGWs4HUUeYH1byzZs117301272021-11-01T00:55:24.951ZDiabetesTreatmentInsulinLightYES2021 Team PresentationsNOhttps://video.igem.org/w/pgyUhhhP9iXNptkkSjquiMhttps://video.igem.org/lazy-static/thumbnails/d3965c3e-5a9c-4804-8cc0-d9d4efbf507f.jpgNCTU_Formosa: Denteeth - A New Type of Dental Bone (2021) - Team Presentation [English]**Title:** Denteeth - A New Type of Dental Bone **Description:** Periodontal disease is an infection of the tissues that hold your teeth in place. Severe periodontal disease was proved to be related to many chronic and cardiovascular diseases. With almost 10% of the global population affected with periodontal disease, the problem of oral disease has been one of the top problems that pose a threat to human beings and even dogs. As many experimenting thoughts are first conducted on dogs, we think it's expedient to focus on dogs' oral health first before applying to human beings. We ameliorate and create a new type of dental bone, DenTeeth.In DenTeeth, antimicrobial peptides are used to sterilize. And we also found several proteins which can repair damaged gingiva and tooth tissue. By optimizing our design through this procedure, we can adjust our project to the optimal place. [Wiki](https://2021.igem.org/Team:NCTU_Formosa)https://static.igem.org/peertube/streaming-playlists/hls/bc6e9f36-fa98-45f9-9763-2938e524db57/b68a9e15-9c35-43dd-9782-292702bef0d7-master.m3u8https://video.igem.org/videos/embed/pgyUhhhP9iXNptkkSjquiM11510552021-11-01T01:25:49.874ZTaiwanAsiaNCTUYES2021 Team PresentationsNOhttps://video.igem.org/w/4JNfRr7pGwtEyecNUbUgwnhttps://video.igem.org/lazy-static/thumbnails/67a1276a-d029-450e-9a0e-cf00db6f9049.jpgUNSW_Australia: PROTECC Coral (Prevent Reactive Oxygen and Thermal Extreme Cause... (2021) - Team...**Title:** PROTECC Coral (Prevent Reactive Oxygen and Thermal Extreme Caused Carking) **Description:** The Great Barrier Reef is the world s largest coral system, integral to Indigenous Australian culture and classified as a World Heritage Site. Rising ocean temperatures have caused several large coral bleaching events, which are attributed to a shift in the symbiotic relationship between coral and microscopic algae species. Heat-induced oxidative stress experienced by algae eventually leads to their expulsion from coral. PROTECC Coral, a Phase II project, aims to reduce coral bleaching by increasing the thermotolerance and antioxidant capacity of a common algal symbiont Symbiodinium goreaui. The twofold solution involves introducing small heat shock proteins to prevent protein aggregation, and a glutathione recycling enzyme system to counteract oxidative stress. Experiments and computational modelling were conducted to examine and validate the solution, complemented by considerable outreach, both informing the wider population about synthetic biology and consulting with various stakeholders, including Traditional Owners, to assess the value and impact of the project. [Wiki](https://2021.igem.org/Team:UNSW_Australia)https://static.igem.org/peertube/streaming-playlists/hls/1e45291f-9953-430c-b749-8386a893133d/79b5d789-51e9-4e1b-9840-824c11cba217-master.m3u8https://video.igem.org/videos/embed/4JNfRr7pGwtEyecNUbUgwn11550662021-11-01T01:55:01.721ZYES2021 Team PresentationsNOhttps://video.igem.org/w/tLkqEVLUppKxqZqtryWwhvhttps://video.igem.org/lazy-static/thumbnails/2435dee4-0684-4ce6-89c0-4d3a0d5945a7.jpgCSMU_Taiwan: GotCha (2021) - Team Presentation [English]**Title:** GotCha **Description:** Upon identifying shortcomings in current detections of UTUC , the iGEM CSMU_Taiwan team aims to overcome them by developing GotCha: a precise, in vitro, and safe diagnostic kit, which also carries a potential to be employed in the detection of various micro-RNA identified diseases. [Wiki](https://2021.igem.org/Team:CSMU_Taiwan)https://static.igem.org/peertube/streaming-playlists/hls/e0d770e5-c693-4d7b-88d5-0ec9d9f7e2c5/9ed98e0b-de97-46a0-8016-24f0fb540ea3-master.m3u8https://video.igem.org/videos/embed/tLkqEVLUppKxqZqtryWwhv11210662021-11-01T02:15:50.652ZDIAGNOSTICMIRNAUTUCCSMUYES2021 Team PresentationsNOhttps://video.igem.org/w/43TutM1rpCfS2KmAMscMnvhttps://video.igem.org/lazy-static/thumbnails/b229b170-ee1c-44af-8aa6-ad900e07e158.jpgHKUST: ShellBi - Prokaryotic Biosensor for Detection of Paralytic Shellfish Toxins (2021) - Team ...**Title:** ShellBi - Prokaryotic Biosensor for Detection of Paralytic Shellfish Toxins **Description:** Paralytic shellfish toxins (PST), such as Saxitoxin and Tetrodotoxin, are neurotoxins found in shellfish like clams, mussels, and oysters, that cause Paralytic Shellfish Poisoning (PSP) by blocking the sodium channels in neurons. Current methods to test for PSTs suffer from massive drawbacks in terms of ethics, complexity, accessibility, and cost. Hence, we are building a prokaryotic biosensor for the detection of a wide range of PSTs that is ethical, cheap, simple, and direct. The biosensor utilises the antagonistic interaction between Shellfish Toxins and Veratridine to induce significant ionic changes within the cell. An engineered Two Component System in the cells senses this change in intracellular ionic levels and modulates gene expression leading to expression of different reporter proteins. Red fluorescent colour is expected when the toxin is present while green when it is not. Small-scale testing laboratories and even shellfish farms could employ our kit for quality assurance of shellfish. [Wiki](https://2021.igem.org/Team:HKUST)https://static.igem.org/peertube/streaming-playlists/hls/18b2a2cf-f5c0-4ae3-82a7-1f5b7f9a182b/36f4b9b1-dd78-4739-a649-0bb513c317ec-master.m3u8https://video.igem.org/videos/embed/43TutM1rpCfS2KmAMscMnv100301142021-11-01T02:40:59.249ZParalyticShellfishPoisoningParalyticShellfishToxinsPSPShellBiPSTYES2021 Team PresentationsNOhttps://video.igem.org/w/ekCMbs3JEZjD4oYYYLUAK9https://video.igem.org/lazy-static/thumbnails/9c282692-9551-4eaf-944f-de0fccf81749.jpgDuke: NODES: Novel Organoid-dependent Drug Efficacy Screening implementing high-... (2021) - Team...**Title:** NODES: Novel Organoid-dependent Drug Efficacy Screening implementing high-throughput, droplet-based brain organoids **Description:** Clinical treatment of glioblastoma, a disease that kills over 10,000 Americans annually, is limited by the lack of a scalable, physiologically-relevant model for testing therapeutics. Duke iGEM is developing NODES, a high-throughput organoid-based drug screening platform to characterize treatment efficacy in common glioma variants. We designed a non-invasive reporter device that quantifies the drug response of mutation-specific glioma cells in a mini-brain co-culture model, grown in a droplet-based system. Additionally, we modeled our reporter system, which detects oncometabolite levels throughout brain tumor development, to improve device characteristics and developed a machine-learning based image analysis pipeline for organoid screening. To identify the social and ethical implications of our work, we interviewed patients, clinicians, and other stakeholders and integrated their feedback into our design. By recapitulating the brain microenvironment, NODES has the potential to accurately characterize drug responses, offering new hope to patients in their fight against this lethal disease. [Wiki](https://2021.igem.org/Team:Duke)https://static.igem.org/peertube/streaming-playlists/hls/6c04999d-2981-4869-bb91-f93a85a4546e/2832ee51-6c44-4714-81ec-3adebc3dbc88-master.m3u8https://video.igem.org/videos/embed/ekCMbs3JEZjD4oYYYLUAK9109401262021-11-01T03:30:01.537ZMicrofluidicsOrganoidsMinibrainsDrugScreeningGliomaYES2021 Team PresentationsNOhttps://video.igem.org/w/2HSjnTCV5LGbhJoiEtn2qfhttps://video.igem.org/lazy-static/thumbnails/933bbc29-0caa-4e53-9147-a953504886f8.jpgHiZJU-China: EE2limination Elimination of EE2 (2021) - Team Presentation [English]**Title:** EE2limination Elimination of EE2 **Description:** The synthetic estrogen 17 -ethynylestradiol (EE2) is a micropollutant with strong endocrine disrupting effects. Due to the large-scale use of estrogen in contraceptives and feed as well as the shortage of effective degradation method, EE2 is accumulating in water environment and will induce serious diseases. Our project aims to solve the EE2 pollution problem. We designed genetically modified bacteria to degrade EE2 via cometabolism in waste water. In order to detect EE2 concentration accurately and quickly, we developed a synthetic biological cascade amplification reaction based on yeast two-hybrid technique, which can easily co-relate the content of EE2 with portable readout, such as cell growth and fluorescence intensity. [Wiki](https://2021.igem.org/Team:HiZJU-China)https://static.igem.org/peertube/streaming-playlists/hls/0df1a460-212a-4fa6-8867-285054aa319a/22afe8d0-d799-4188-aa85-cb40a0a70d54-master.m3u8https://video.igem.org/videos/embed/2HSjnTCV5LGbhJoiEtn2qf7000512021-11-01T03:58:37.856ZYES2021 Team PresentationsNOhttps://video.igem.org/w/iJdWwLzQo2h449FeUoXSW5https://video.igem.org/lazy-static/thumbnails/48a0098c-a2fe-42a3-a1ed-a7896141177b.jpgTokyoTech: Lacteeth (2021) - Team Presentation [English]**Title:** Lacteeth **Description:** There are billions of people who have dental caries around the world. Dental caries are related not only to quality of life but also to health expectancy. The more aging society grows, the more dental health problems become important. Our project aims to develop new probiotics that continuously prevent dental caries with engineered Lactococcus lactis. We designed Lactococcus lactis which is able to bind specifically to biofilm and diffuse growth inhibitors against bacteria causing dental caries. We also considered the practical use of recombinant probiotics in the real world and suggest how we can use engineered bacteria safely outside of the laboratory. We hope that our project contributes to the world without dental caries. [Wiki](https://2021.igem.org/Team:TokyoTech)https://static.igem.org/peertube/streaming-playlists/hls/8f9091fa-9223-490e-9bcc-d3a9225b3c80/8ec8ae94-75c3-459b-b680-8622ad04bc46-master.m3u8https://video.igem.org/videos/embed/iJdWwLzQo2h449FeUoXSW5100201022021-11-01T04:27:52.134ZProbioticsTherapeuticsDentalCariesBiofilmBioSafetyYES2021 Team PresentationsNOhttps://video.igem.org/w/a4RpGGhzgcy1M6aheWLyCYhttps://video.igem.org/lazy-static/thumbnails/ccd5cd1d-ca1d-41f1-851f-f7f0d6f64279.jpgIISER_Bhopal: BLAST : Bifidobacterium Longum induced Apoptosis using Smac and Tr... (2021) - Team...**Title:** BLAST : Bifidobacterium Longum induced Apoptosis using Smac and Trail (Therapeutic for Solid tumor cancers) **Description:** Cancer, the second leading cause of death in the world, registered 19 million cases and about 10 million deaths in 2020 globally. Cancer treatment is both financially and mentally traumatizing for patients as current therapies suffer from a plethora of side effects and are very expensive. Our project presents an innovative approach to treat cancer using apoptosis-inducing peptides SMAC & TRAIL. TRAIL binds to the cancer cells extrinsically, thereby activating caspases, whereas SMAC induces apoptosis intrinsically and also sensitizes TRAIL-resistant cancer cells. Our chassis organism, B.longum, is an obligatory anaerobe and grows only in hypoxic regions providing specificity to target solid tumours. Furthermore, it has a lactate-based KILL SWITCH to ensure it gets killed outside the cancer environment and an AND GATE ensures secretion specificity to cancer cells only. We'd be establishing the Proof of Concept in E.coli. The objective is to design cheap and viable therapy for cancer treatment. [Wiki](https://2021.igem.org/Team:IISER_Bhopal)https://static.igem.org/peertube/streaming-playlists/hls/496bedac-6214-431f-8eff-a878ce772fc0/9bc00c56-23df-42d0-8c3c-35f38227dc62-master.m3u8https://video.igem.org/videos/embed/a4RpGGhzgcy1M6aheWLyCY119402142021-11-01T04:55:21.801ZBlastCancerTreatmentofcancerYES2021 Team PresentationsNOhttps://video.igem.org/w/mCVCHhEEKrbdza8cs13hBHhttps://video.igem.org/lazy-static/thumbnails/12cb0e55-bdff-4ed7-900b-3e4ab2a90992.jpgIISc-Bangalore: CellOPHane (2021) - Team Presentation [English]**Title:** CellOPHane **Description:** Project CellOPHane seeks to create a functionalized bacterial cellulose filter to combat organophosphate pollution. Organophosphates are used as pesticides globally but are extremely potent neurotoxic agents, which cause adverse reactions on reaching living organisms through contaminated agricultural runoff. We are seeking to degrade the organophosphates present in water into relatively harmless products by using a broad-spectrum organophosphate hydrolase functionalized on a bacterial cellulose sheet. We're also seeking to create a one-of-a-kind modular plug-n-play platform to combat other kinds of pollution with minimal modifications. The platform that we seek to create can be used for any bioremediation strategy by just cloning the corresponding enzyme; one need not therefore spend resources on reimagining the exact design implementation for every individual contaminant. Project CellOPHane will thus help in reshaping the bioremediation landscape and make bioremediation strategies easy to develop and implement. [Wiki](https://2021.igem.org/Team:IISc-Bangalore)https://static.igem.org/peertube/streaming-playlists/hls/a71e99f5-d8b9-43f1-ae8b-745dd3ee2227/229a44e3-48cf-41fd-9089-f9afcee7713c-master.m3u8https://video.igem.org/videos/embed/mCVCHhEEKrbdza8cs13hBH108902602021-11-01T05:25:04.370ZBioremediationEnvironmentSDGYES2021 Team PresentationsNOhttps://video.igem.org/w/bkNXqpCQgm1F5Xivi41SHBhttps://video.igem.org/lazy-static/thumbnails/e84b0444-dc2a-4a41-881a-3f5ef6aadfb1.jpgTsinghua: Gut matters: A diagnostic tool and multiprobiotics therapy for IBD (2021) - Team Presen...**Title:** Gut matters: A diagnostic tool and multiprobiotics therapy for IBD **Description:** Inflammatory Bowel Disease (IBD) is a chronic disease severely impacting the life quality of an increasing number of patients worldwide. As IBD is hard to diagnose and difficult to cure, Tsinghua iGEM 2021 team aims to develop a solution to facilitates IBD diagnosis and therapeutic cures. For the diagnostic tool, an RNA-guided fusion protein is used to specifically label miRNA biomarkers for IBD, enabling fast detection of these biomarkers from blood/saliva samples. For the therapy, our approach contains the following points: strains of probiotic E. coli and L. lactis are engineered to produce microcin, treatment protein, and bile salt hydrolase, targeting gut microflora composition, mucus healing process, and metabolic environment regulation respectively. Additionally, a new cell-coating technology is employed to improve the delivery efficiency. This approach should bring new light to the understanding and treatment of IBD. [Wiki](https://2021.igem.org/Team:Tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/53bf74a2-7afc-43d1-8efc-dae94c53f405/e7c65612-9564-43e3-9b88-489695e61375-master.m3u8https://video.igem.org/videos/embed/bkNXqpCQgm1F5Xivi41SHB119601322021-11-01T03:03:56.729ZDiagnosisIBDTherapyYES2021 Team PresentationsNOhttps://video.igem.org/w/gFJaFaHrXwZ3fdPGo61VwDhttps://video.igem.org/lazy-static/thumbnails/9ce93b07-c3d2-43be-9cfe-f47acfe4e39c.jpgBulgaria: 202 1 A Resistance Odyssey (2021) - Team Presentation [English]**Title:** 202 1 A Resistance Odyssey **Description:** Our team focused on the application of protocols, combining identification of already known and discovery of new genetic determinants, for antibiotic resistance in waste waters. In Phase 1, we gathered information for known antibiotic resistance genes by running full metagenomic sequencing, as well as through selective amplification and sequencing of integrons. This allowed early detection of antibiotic resistance factors relevant to clinically significant antibiotics. Then we singled out genes related to antibiotic resistance, which haven t been found in the territory of Bulgaria yet. Upon the discovery of new determinants, our project entered Phase 2, in which the determinants were generated using synthesis and gene cloning. The successful completion of our project would lead to the development of streamlined protocols for the examination of the cumulative resistome. This allows for an adequate estimation of antibiotic resistance and provide us with information for future emergence and treatment of multi-resistant bacteria. [Wiki](https://2021.igem.org/Team:Bulgaria)https://static.igem.org/peertube/streaming-playlists/hls/7f0512ba-2b58-445f-bbaf-34b17d866bf5/344e67fb-9f6c-4589-a0b9-f8c05fb11893-master.m3u8https://video.igem.org/videos/embed/gFJaFaHrXwZ3fdPGo61VwD8440762021-11-01T05:45:19.420ZYES2021 Team PresentationsNOhttps://video.igem.org/w/eYNibqGGY1mzRVbZCHzkJnhttps://video.igem.org/lazy-static/thumbnails/2a1da36c-1735-4838-a2f5-e7c7f40486d3.jpgEstonia_TUIT: SALSASMILE (2021) - Team Presentation [Estonian]**Title:** SALSASMILE **Description:** Around 2.3 billion people suffer from caries. The preventive measures include dietary restrictions, exposure to adequate doses of fluoride, and tooth brushing. However, inappropriate tooth brushing may cause dental cavities and harm gums. Therefore, safer and unified oral hygiene methods are in demand. Tooth decay is caused by bacteria that bind the human SALSA protein on teeth' surface, forming a biofilm and producing acids that destroy teeth. In SALSASMILE, we engineer a protease to target the SALSA protein. We expect that cleaving SALSA will remove bacteria even from the inaccessible areas, making oral hygiene more efficient. We develop a simple assay in yeast to select for proteases that cleave the desired sequence. Combined with deep mutational scanning or directed evolution, this is a powerful tool to engineer proteases. Everyone, especially children, people with orthodontic cases, or disabled individuals could use SALSASMILE alongside tooth brushing for improved oral hygiene. [Wiki](https://2021.igem.org/Team:Estonia_TUIT)https://static.igem.org/peertube/streaming-playlists/hls/7134fc18-7a29-4bcc-84f4-dc50e3cea4bd/af82397c-0ee8-4af6-ad77-1ac80e3d42f0-master.m3u8https://video.igem.org/videos/embed/eYNibqGGY1mzRVbZCHzkJn11660732021-11-01T06:12:32.137ZPAPICEscapeRoomPerfectsmileSALSAProteaseYES2021 Team PresentationsNOhttps://video.igem.org/w/5qvCAC5ND5YNjs3XYof8Nqhttps://video.igem.org/lazy-static/thumbnails/36239489-1b7d-4205-9add-10085f4fa78b.jpgBUCT-China: The Future Food Cultured Meat (2021) - Team Presentation [English]**Title:** The Future Food Cultured Meat **Description:** Mankind has never stopped exploring the universe. With the development of science and technology, space migration is no longer a dream. Among the many problems of space migration, our team has great interest in space food. We tried to provide feasible solutions based on synthetic biology and tissue engineering technology. In our design, firstly, an engineered E. coli was employed and started with glucose as raw material to synthesize a bio-compatible polymer, which would work as scaffold for muscle cell growth. Afterwards, collagen was produced by another engineered E. coli and doped with scaffold materials. Then the scaffold was prepared by biological 3D printing technology. Finally, the extracted muscle stem cells were inoculated on the scaffold for culture, differentiation, and proliferation to form the final cultured meat. Besides, a mathematical model is established to simulate the growth of artificial meat, which would provide foundation and guidance for the future research. [Wiki](https://2021.igem.org/Team:BUCT-China)https://static.igem.org/peertube/streaming-playlists/hls/23d0aa75-e0e2-455b-ae69-ef75ff7b41d0/a80121a3-2ba2-496b-872f-5ffdd66d7d65-master.m3u8https://video.igem.org/videos/embed/5qvCAC5ND5YNjs3XYof8Nq115401072021-11-01T06:41:26.504ZCulturedMeatYES2021 Team PresentationsNOhttps://video.igem.org/w/ty25nYZcJg1Vm5KQu2RP6bhttps://video.igem.org/lazy-static/thumbnails/1f41b8fb-87e4-4920-8bfe-d7be3f611869.jpgDKU: Cyano Killer : Biological control of cyanobacterial blooms (2021) - Team Presentation [English]**Title:** Cyano Killer : Biological control of cyanobacterial blooms **Description:** Harmful algal blooms have been a severe environmental issue threatening water quality and habitat. Efforts have been made through physical and chemical methods, but with little influence. Biological methods might be more efficient and eco-friendlier. We produce and deliver algicidal polypeptides with E. coli as the agent. The polypeptide works by penetrating cyanobacteria, which triggers cell aggregation and division. The physical delivery unit is designed using mathematical modelling. It is a floating unit with adequate mobility and precise targeting that releases the drug at a controlled rate. For human practices, we asked for advice from algicidal companies and bureaus. We also made efforts in spreading environmental awareness, especially by presenting our iGEM project at the School Club Fair and publicizing our discovery through the DKU MediHealth podcast. [Wiki](https://2021.igem.org/Team:DKU)https://static.igem.org/peertube/streaming-playlists/hls/df1f350f-0188-443f-995d-8ee964a31680/45882d22-2fba-42b4-aefd-8e1df7223b3f-master.m3u8https://video.igem.org/videos/embed/ty25nYZcJg1Vm5KQu2RP6b10890702021-11-01T06:58:13.887ZYES2021 Team PresentationsNOhttps://video.igem.org/w/i5cQmoeWh2VVHvK6stmZsQhttps://video.igem.org/lazy-static/thumbnails/8b106831-e67d-40da-9528-a1e6950b7495.jpgTuebingen: ATHELAS: A modular screening platform for stabilized antimicrobial pe... (2021) - Team...**Title:** ATHELAS: A modular screening platform for stabilized antimicrobial peptides expressed in Nicotiana benthamiana **Description:** Antimicrobial resistance is one of the ten most severe global health threats to humanity, according to the WHO. Pathogenic bacteria are constantly acquiring resistance to further antibiotics, leading to the emergence of multi-drug-resistant and therefore untreatable strains with the drugs available. A class of new potential antibacterial drugs are antimicrobial peptides (AMPs), which are part of the innate immune response of eukaryotes and prokaryotes. However, the medical applicability of unmodified AMPs is limited by their low in vivo stability. Therefore, we invented ATHELAS: an AMP-thioknot herbal expression and low effort activity screening platform. In our project, we use highly stable cyclic peptides from plants called cyclotides as a scaffold to stabilize AMPs. We developed a convenient platform to screen the properties of arbitrary stabilized peptides. Our platform includes an array of fast cloning, transient expression in Nicotiana benthamiana, efficient extraction and purification, and antibacterial activity testing. [Wiki](https://2021.igem.org/Team:Tuebingen)https://static.igem.org/peertube/streaming-playlists/hls/8a41a002-d0e9-40be-aef6-130044e8a6e8/22f984bc-74ba-473b-9fe9-ff0a169f0f67-master.m3u8https://video.igem.org/videos/embed/i5cQmoeWh2VVHvK6stmZsQ110402542021-11-01T07:20:54.834ZYES2021 Team PresentationsNOhttps://video.igem.org/w/1gmWhzGYfbu514BN6R6Tdrhttps://video.igem.org/lazy-static/thumbnails/cab56644-820e-47d7-bfa8-444508bc581f.jpgGunma: Breakdown Biofilms in Baths (2021) - Team Presentation [English]**Title:** Breakdown Biofilms in Baths **Description:** Hot spring facilities all over the word have various problems caused by biofilms. For example, biofilms protect infectious microorganisms from disinfectants. Biofilms are communities of microorganisms that irreversibly stick to non-biological surfaces and grow on the surfaces, producing exopolysaccharides that facilitate attachment and matrix formation. To break down such biofilms, we constructed a vector for expression of a glycolytic enzyme fused to RFP (red) that degrades exopolysaccharides. An Escherichia coli strain was used not only as an expression host but also as a carrier of the enzyme to biofilms. The strain also contained a suicide vector as the second vector that can cause bacteriolysis under some specific condition. Our findings showed that experimental biofilms were efficiently degraded by the glycolytic enzyme that leaked from the lysed transformant cells . The use of the red transformant may make it easier to kill infectious microorganisms with disinfectants or remove biofilms from bathtubs. [Wiki](https://2021.igem.org/Team:Gunma)https://static.igem.org/peertube/streaming-playlists/hls/02250f0d-3fcb-419b-b443-f7376b6411f5/34feefd2-8ce5-4271-baa5-794815afbe5c-master.m3u8https://video.igem.org/videos/embed/1gmWhzGYfbu514BN6R6Tdr7200892021-11-01T07:36:54.650ZYES2021 Team PresentationsNOhttps://video.igem.org/w/dzMWNyUsEgqVoUTtHCn4azhttps://video.igem.org/lazy-static/thumbnails/4a38a877-e0f5-47ee-9694-db9e5e44927b.jpgXMU-China: Supplementary Materials for our Collaborations Page [English]Sorry！We accidentally overwrite “collaborations” page with “Result” page. So we are going to show our collaborations contents in this video. https://static.igem.org/peertube/streaming-playlists/hls/65e585da-950b-42b3-92fe-f2dde546afff/22035b0f-2495-4473-a430-6fc2e1f494e1-master.m3u8https://video.igem.org/videos/embed/dzMWNyUsEgqVoUTtHCn4az82072021-10-28T17:13:42.557ZChinaAsiaNewApplicationCollaborationsYESiGEM 2021 TeamsNOhttps://video.igem.org/w/aDv1pt8xEAiCWssT995CwQhttps://video.igem.org/lazy-static/thumbnails/acd242eb-4742-4751-817d-e235aa6b85db.jpgKyoto: FLOWEREVER -A colorful palette of approaches for sustaining flower life- (2021) - Team Pre...**Title:** FLOWEREVER -A colorful palette of approaches for sustaining flower life- **Description:** Since time immemorial, flowers have been providing us with comfort and beauty on occasions ranging from mourning to celebration. While cut flowers are in high demand, they are ultimately treated as disposable products leading to large amounts of pre- and post-consumer waste. To make this intimate and essential relationship sustainable, iGEM Kyoto proposes a colorful palette of measures for each process from flower production to consumption. Our discussions with stakeholders revealed that many flowers are lost to insects or diseases. Accordingly, we attempted to kill pests with RNAi, and developed a virus detection device based on RT-LAMP and CRISPR-Cas12a. Alternative to chemicals, we suggest dsRNA and peptides to delay flower wilting. Notably, for more efficient syntheses of these eco-friendly materials, we proposed a system using asymmetric plasmid partitioning. Although fragility and mortality may add to a flower's beauty, an extended life span will allow them to be enjoyed by many. [Wiki](https://2021.igem.org/Team:Kyoto)https://static.igem.org/peertube/streaming-playlists/hls/4e1ea4c3-e4c5-4dd2-bac6-ab1091dcbbec/63fe5976-7320-446c-a2c6-dbd8ccb6d5fa-master.m3u8https://video.igem.org/videos/embed/aDv1pt8xEAiCWssT995CwQ120005212021-11-01T08:36:13.581ZJapanFLOWEREVERPlantsAsiaEnvironmentYES2021 Team PresentationsNOhttps://video.igem.org/w/8Lfy96SkEob88DrWnyTWcghttps://video.igem.org/lazy-static/thumbnails/c4fb7616-61ae-412f-9df5-685727ee6ecd.jpgMingdao: deSALMONEtor a phage-based Salmonella detector (2021) - Team Presentation [English]**Title:** deSALMONEtor a phage-based Salmonella detector **Description:** Designer phage is a synthetic programmable bacteriophage utilized in diagnosis, vaccine, drug delivery in medicine. Salmonella spp. are a leading cause of food poisoning. Phage typing is a traditional method for characterizing distinct bacterial strains through specific recognition. Phage reporters have been genetically equipped with GFP or luciferase gene and applied in detecting Salmonella in contaminated food. However, the limitation and challenges still hinder its application to routine sample examination. In our project, we have created a Salmonella detector by introducing phi29 DNA polymerase gene into an isolated Salmonella phage genome through in vitro Tol2 transposon system. Rolling circle amplification (RCA) will be triggered in the presence of phi29 DNA polymerase generated by the reporter phage-infected Salmonella cells. The RCA products can be easily measured with a DNA-binding dye. Implementation in mathematical modeling and hardware design will help to understand the potential use in the real world. [Wiki](https://2021.igem.org/Team:Mingdao)https://static.igem.org/peertube/streaming-playlists/hls/3eddaa72-0ae9-41d2-86ae-8075b32be53d/40e63a05-7efe-43ca-9908-8a8bf3e76582-master.m3u8https://video.igem.org/videos/embed/8Lfy96SkEob88DrWnyTWcg119902082021-11-01T09:11:07.381ZBacteriophagetypingYES2021 Team PresentationsNOhttps://video.igem.org/w/kVUyFocdaXH9XVZ6xaMcMthttps://video.igem.org/lazy-static/thumbnails/8a8fdeba-5cb5-4786-8eb3-3dd2079e0cdf.jpgXMU-China: SALVAGE (2021) - Team Presentation [English]**Title:** SALVAGE **Description:** Nuclear power is an important source in electricity production. The plants need to be built on coast for the huge requirement of cooling water. However, marine organisms such as Phaeocystis globosa and Mytilus eduli sometimes cause blockage, making the cooling water system less efficient. Here, we show our solutions that the Lectin-SpyTag/SpyCatcher can pull down P. globosa colonies and then the hutH-fused proteins suppress the activity of P. globosa. To inhibit M. eduli fouling, Vibrio natriegens are engineered to express LC1KR2, PPO, and TnaA, which function jointly to attach engineered bacteria to the coarse grille and to inhibit M. eduli attachment. Genes rhlA and rhlB are also introduced to remove protection from mussel foot protein(mfp). As for biosafety, a blue-light-activated device, pBlind system, is implemented to control the expression of toxic protein BlrA, which can constrain the engineered bacteria in a reservoir with two blue light strips upstream and downstream. [Wiki](https://2021.igem.org/Team:XMU-China)https://static.igem.org/peertube/streaming-playlists/hls/a164729d-7737-4b46-aaf1-f85e88228091/b394fee4-8eaa-402a-81a8-502b6a5ac2ec-master.m3u8https://video.igem.org/videos/embed/kVUyFocdaXH9XVZ6xaMcMt115402402021-11-01T10:04:08.313ZAsiaChinaNewApplicationYES2021 Team PresentationsNOhttps://video.igem.org/w/jHb3buA3BCR9CYgowfCw7mhttps://video.igem.org/lazy-static/thumbnails/e17264b6-d515-4101-bd2d-2e0aa9f96b72.jpgTongji_China: LOOK! Little Odor Killer (2021) - Team Presentation [English]**Title:** LOOK! Little Odor Killer **Description:** Since the implementation of household garbage sorting regulations in Shanghai, the amount of food waste has reached a peak. However, problems caused by odor like unpleasant smell and health problems, have aroused great attention everywhere. This year, Tongji China launches the 'LOOK!' project to solve the problem. We construct two kinds of bioengineered E.coli to absorb hydrogen sulfide and ammonia, which are the two main ingredients in the odor. One uses enzymes related to sulfide oxidazation(Sqr, Sdo, AprBA and Sat), converting hydrogen sulfide to sulfate, while the other uses enzymes AMO, HAO and NOD to convert ammonia to nitrate. Besides, a three-gear adjustable kill switch based on the concentration of H2S and NH3 is added to ensure biosafety. Also, we optimize our pathway by high throughput screening and machine learning. With such efforts, we hope to solve the problems the odor brought to people and downstream industries. [Wiki](https://2021.igem.org/Team:Tongji_China)https://static.igem.org/peertube/streaming-playlists/hls/97842d24-bc08-463b-8d38-f04ef00887e8/e0693d84-8f73-45f4-8c14-3e1145704542-master.m3u8https://video.igem.org/videos/embed/jHb3buA3BCR9CYgowfCw7m107704172021-11-01T10:50:50.117ZEnvironmentYES2021 Team PresentationsNOhttps://video.igem.org/w/pd1CyAZxzFDSqguf8SFz2yhttps://video.igem.org/lazy-static/thumbnails/0f047404-dd7f-4cfe-9d7e-d3a13305c1cb.jpgSJTU-BioX-Shanghai: Detection Blitz (2021) - Team Presentation [English]**Title:** Detection Blitz **Description:** We live in a world where monstrous industries operate ruthlessly, while the environment is crowded by numerous unknown hazardous bacteria and virus. Emergencies could occur without anyone foreseeing by then, a lightning fast detection tool would play a vital role. SJTU-BioX-Shanghai think out of the box, constructing a platform that enables the automatic development of new fast detection test strips. With the help of an in vitro evolution strategy for aptazyme, we can effectively find biosensors for wide-ranging targets. Then two rational designed probes are introduced by our prediction model, which enables our nanogold based lateral flow system to show a positive signal with targets in existence. By virtue of the extremely short development cycle and equipment-free final products, our project possesses a bright prospect. [Wiki](https://2021.igem.org/Team:SJTU-BioX-Shanghai)https://static.igem.org/peertube/streaming-playlists/hls/bbef80be-74fb-4d9f-b472-3dbaa99fcf16/18e3108d-0d08-4951-91c0-80f61210f241-master.m3u8https://video.igem.org/videos/embed/pd1CyAZxzFDSqguf8SFz2y120002242021-11-01T09:45:31.176ZYES2021 Team PresentationsNOhttps://video.igem.org/w/7Wn2DTxMan2YgUiiQCZW1Mhttps://video.igem.org/lazy-static/thumbnails/4090e581-b0cd-4374-942b-80a9077f7750.jpgNOVA_LxPortugal: P(L)AST: The Ocean Cleaner of the Future (2021) - Team Presentation [English]**Title:** P(L)AST: The Ocean Cleaner of the Future **Description:** Microplastics are a growing concern worldwide. Studies point to about 5.25 trillion pieces of plastic floating in our oceans, and our society is only now beginning to grasp the extent of the health risks associated with microplastic consumption. All these concerns led us to develop P(L)AST, a simple solution to battle this ongoing crisis. By transforming Bacillus subtilis with the Polyethylene terephthalate (PET) degradation pathway present in Ideonella sakaiensis, we aimed to create an efficient, versatile, and easy to deploy plastic degradation platform qualities further improved through our metabolic optimization models. P(L)AST is also a project concerned with social impact; as such, we spent a portion of our resources inspiring the younger generations and educating the masses by organizing, promoting, and participating in events related with the environment, sustainability, and science. [Wiki](https://2021.igem.org/Team:NOVA_LxPortugal)https://static.igem.org/peertube/streaming-playlists/hls/382df46e-d5b7-49fe-8087-b9f88bcc4bad/da7abd1f-19fe-4ca9-a460-6a841767b495-master.m3u8https://video.igem.org/videos/embed/7Wn2DTxMan2YgUiiQCZW1M120002132021-11-01T10:30:23.202ZYES2021 Team PresentationsNOhttps://video.igem.org/w/bGDgnKTptzjmVkbwpjBLB4https://video.igem.org/lazy-static/thumbnails/9bbdab0f-b248-4c10-908b-a89a331ba103.jpgKCIS_NewTaipei: D-licious: Engineering Butyrate-producing Bacteria to Combat Vit... (2021) - Team...**Title:** D-licious: Engineering Butyrate-producing Bacteria to Combat Vitamin D Deficiency **Description:** From regulating calcium homeostasis, strengthening the immune system, and even preventing COVID-19 infection, vitamin D serves a crucial role in the maintenance of human health. Vitamin D deficiency, a global pandemic caused largely by the lack of sunlight exposure, has only exacerbated during COVID-19 lockdown. However, all current solutions to vitamin D deficiency present limitations in efficiency or accessibility. Our project presents a new method for vitamin D activation. By manipulating the acetyl-CoA butyrate producing pathway, we can increase the butyrate-producing ability of probiotics. The increased production of butyrate would upregulate Vitamin D receptor expression by increasing the activity of the TGF pathway, which would ultimately result in a more efficient activation of vitamin D. By introducing our engineered probiotics into fermented food starters, we believe the project could be implemented in daily diets, opening up opportunities for a more efficient way of vitamin D intake in the future. [Wiki](https://2021.igem.org/Team:KCIS_NewTaipei)https://static.igem.org/peertube/streaming-playlists/hls/56a81a52-d5ac-4f62-b7c9-90e9ac19a399/f840de57-432f-4d45-92bd-2b2bf00765a5-master.m3u8https://video.igem.org/videos/embed/bGDgnKTptzjmVkbwpjBLB491607692021-11-01T11:10:34.079ZYES2021 Team PresentationsNOhttps://video.igem.org/w/bKcNeReEgPsFbWkvcQL4Z1https://video.igem.org/lazy-static/thumbnails/66e81e89-3010-45fd-8a64-b14ebfd20f9b.jpgNU_Kazakhstan: Remi, du et! (2021) - Team Presentation [English]**Title:** Remi, du et! **Description:** Increasing demand for oil & gas production in modern days pushes for higher production and distribution rates. The occurrence of oil spills in such processes is not unusual and the vast majority are left unaccounted for. Existing treatment methods are only efficient for localized spills shortly after the accident, while in the long-term they are less cost-effective and hazardous to Kazakhstani endemic flora & fauna. We propose a solution to this problem by developing a novel agent for crude oil bioremediation - Remi, du et! . Specifically, we modify nonvirulent Pseudomonas putida using a dual-inducible system for overexpression of genes nadE and rhlA/B, coding for NAD synthetase and rhamnolipids, respectively. The metabolically-engineered bacteria demonstrate a high yield of rhamnolipids when grown as biofilms under electrofermentative conditions. Since produced rhamnolipids are biosurfactants that emulsify crude oil, the resulting product can be used directly for the treatment of oil spills in ecologically-sensitive areas. [Wiki](https://2021.igem.org/Team:NU_Kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/5703a395-d7db-4d2f-bf67-feff848206d6/63ce8cd5-fb3b-40cd-ba78-05c1c17ca99a-master.m3u8https://video.igem.org/videos/embed/bKcNeReEgPsFbWkvcQL4Z1119602612021-10-29T10:39:29.950ZInclusivityEnvironmentOilCentralasiaBioremediationYES2021 Team PresentationsNOhttps://video.igem.org/w/91crto4Tmx5nFawfsqFG4Uhttps://video.igem.org/lazy-static/thumbnails/845eecda-f881-4140-94b1-352af3546a8a.jpgWVHS_SanDiego_CA: Project Purified (2021) - Team Presentation [English]**Title:** Project Purified **Description:** Aridification and rising sea levels are increasing salinity levels and the little-known effects of global warming are drastically affecting coastal plants, like Liquidambar and Jasmine. This project focuses on the HKT1 pathway and overexpresses the pathway in plants battling higher concentrations of salt, to adapt and over time and breed new generations of more-tolerant plants. HKT1-type transporters are key determinants of Na+ and K+ homeostasis under salt stress and they contribute to reducing Na+-specific toxicity in plants. We created four new parts using knowledge from previous literature in which the chassis, E. coli will act as a device to insert a sequence to overexpress the HKT1 gene in plants. The CrGPDH3 promoter gene from C. reinhardtii was found to be inducible under NaCl treatments from previous laboratory experiments, therefore, the project focused on combining the RIA1 section of the CrGPDH3 promoter to initiate overexpression for the HKT1 transporter. [Wiki](https://2021.igem.org/Team:WVHS_SanDiego_CA)https://static.igem.org/peertube/streaming-playlists/hls/40d028af-0f78-478c-b250-e01d7c54ebda/effd64f5-e12f-40b9-9bbd-f5b61a9d9b05-master.m3u8https://video.igem.org/videos/embed/91crto4Tmx5nFawfsqFG4U11060142021-10-29T10:47:51.726ZYES2021 Team PresentationsNOhttps://video.igem.org/w/oRmCHdg9dK7AHoQgn3sFG4https://video.igem.org/lazy-static/thumbnails/0f2b32fc-efba-4f49-b1e3-d275cca92796.jpgGreece_United: Epione: One Less Painful Step (2021) - Team Presentation [English]**Title:** Epione: One Less Painful Step **Description:** Osteoarthritis is the most common musculoskeletal disease around the world, often leading to chronic pain and severe paralysis. Osteoarthritis is characterized by an intense inflammation cycle, in which chondrocytes produce certain proteins that cause cartilage degradation. Our approach aims to halt this inflammatory cycle by inserting specifically transfected cells in the osteoarthritic joint. The cells produce synthetically designed exosomes that contain miRNA-140. miRNA-140 has been shown to inhibit the expression of certain cartilage destructive proteins and promote the expression of regenerative agents. The exosomes are also designed to carry a Chondrocyte Affinity Peptide (CAP) in their membrane which guides them to deliver their cargo specifically towards chondrocytes. This project includes in-silico and in-vitro experiments that study the efficiency of the proposed plasmid to produce exosomes in HEK293T cells. Project dissemination activities include a novel web application to communicate osteoarthritis risks to the public. [Wiki](https://2021.igem.org/Team:Greece_United)https://static.igem.org/peertube/streaming-playlists/hls/b90d35f3-c7d0-4847-b895-3ba952752f9f/21f91d0e-7773-4fe3-8bb9-8c9bb75f0aa2-master.m3u8https://video.igem.org/videos/embed/oRmCHdg9dK7AHoQgn3sFG411980622021-10-29T11:02:05.112ZExosomesWebAppOpensourceOsteoarthritisMiRNAYES2021 Team PresentationsNOhttps://video.igem.org/w/rbBF1wH613xXmKaixYatNZhttps://video.igem.org/lazy-static/thumbnails/571797be-3abd-48d0-915e-cac0eee86dfe.jpgGuelph: CRISPR to Combat Climate Change (2021) - Team Presentation [English]**Title:** CRISPR to Combat Climate Change **Description:** Our project this year aims to address the threats posed to global food production by climate change in the form of abnormal or unseasonal weather events. Using a CRISPR activation (CRISPRa) system in conjunction with a molecular switch, we aim to create genetically modified plants for which specific stress-response genes can be manually upregulated following the human-mediated input of a chemical stimulus. Our team has also developed and executed a strong outreach plan. We have worked with professionals in the industry and experts in the fields of agriculture and genetic engineering in order to better understand how our research can be applied. We have also partnered with other iGEM teams to create a series of academic materials covering different facets of synthetic biology. We have partnered with teachers in order to gain feedback on this work, and to determine how this material could be effectively deployed in a classroom setting. [Wiki](https://2021.igem.org/Team:Guelph)https://static.igem.org/peertube/streaming-playlists/hls/cbefe361-42a7-4d46-80dd-f352ffc6a279/1dd8ce05-ccab-4f9f-93cf-2440ef6516b9-master.m3u8https://video.igem.org/videos/embed/rbBF1wH613xXmKaixYatNZ11870222021-10-29T11:10:57.991ZYES2021 Team PresentationsNOhttps://video.igem.org/w/a2L71tTUPCmxVhK6wVPiEHhttps://video.igem.org/lazy-static/thumbnails/1a3cf436-926e-4d31-84d8-db61c5a94f60.jpgParis_Bettencourt: Mini.ink: think big, go with minicells (2021) - Team Presentation [English]**Title:** Mini.ink: think big, go with minicells **Description:** Biosafety is central when manipulating GMOs. We aim to participate in increasing biosafety by using minicells, nanosized and chromosome-free bacterial cells formed by abnormal division of rod-shaped bacteria. We observed their behaviour and hypothesized their use as chassis for local production of desired proteins, without purification expenses. This project is centered around the production of compounds through minicells of E.coli MG1655 containing a plasmid of interest. Minicells are produced using two approaches: overexpression of the FtsZ ring and deletion of the min operon. In parallel, a bioreactor for cultivation and isolation of minicells from parental cells was designed to guarantee a final genomic DNA-free sample. Filtration and introduction of an infection-defective lambda phage into the genome of parental cells was implemented to achieve higher separation yield. We focused the project on production of indigo pigment and found a method to safely dye textile without purification or addition of chemicals. [Wiki](https://2021.igem.org/Team:Paris_Bettencourt)https://static.igem.org/peertube/streaming-playlists/hls/49212be8-52cb-4b51-a5d7-811d992dc351/f1ba7049-c00f-4a24-864b-9da121f7f498-master.m3u8https://video.igem.org/videos/embed/a2L71tTUPCmxVhK6wVPiEH10980902021-10-29T11:25:38.084ZYES2021 Team PresentationsNOhttps://video.igem.org/w/bfvp9qqvQSUbAELKfifkfdhttps://video.igem.org/lazy-static/thumbnails/e8e9504f-58bb-4eca-bf92-ab46ddf29547.jpgMEPhI: MISS - Microbiomic Space Suit: Synthetic Human Microbiota to Stimulate Ra... (2021) - Team...**Title:** MISS - Microbiomic Space Suit: Synthetic Human Microbiota to Stimulate Radioprotection to Ionizing Radiation **Description:** Project MISS is aimed to create a Microbiomic Space Suit protecting cosmonauts, astronauts, and taikonauts from aggressive radiation during their long-term missions. Microbial communities cover the human body and form a biological suit that helps humans to perform various vital functions. The project aims to populate human s natural suit with gene-modified bacteria synthesizing radioprotective proteins. New microbiota will pave a way for further space exploration plans including human settlements on the Moon or an expedition to Mars. We will modify Human bacteria using silicon nanoparticles with absorbed genetic material. Inserted genes will motivate bacteria for secreting radioprotectors packed in Outer Membrane Vesicles (OMVs) capable of fusing with human cells. The bacterial communities developed within this project will be the first synthetic human microbiota engineered to perform specific functions in its natural epitopes. [Wiki](https://2021.igem.org/Team:MEPhI)https://static.igem.org/peertube/streaming-playlists/hls/5301eacd-0c41-4b23-8ff6-3086aaf9d4a4/a63885ea-9867-4954-9caa-d4ece0a16701-master.m3u8https://video.igem.org/videos/embed/bfvp9qqvQSUbAELKfifkfd5110162021-10-29T11:35:11.093ZYES2021 Team PresentationsNOhttps://video.igem.org/w/dsdB2doksvt7rLVKcUKEQahttps://video.igem.org/lazy-static/thumbnails/4b6bb1c4-0d15-4764-99c9-1d541da522c1.jpgGreatBay_United: Artificial Limulus Amebocyte Lysate (2021) - Team Presentation [English]**Title:** Artificial Limulus Amebocyte Lysate **Description:** Bacterial endotoxin testing is indispensable for disease diagnosis and the launch of new drugs, demand is increasing year by year. The limulus blood reagent taken from the blood of horseshoe crab is currently recognised as the most reliable detection method, but 600,000 horseshoe crabs are dedicated to this every year. This project draws inspiration from bacterial endotoxin detection and horseshoe crab protection, and plans to develop a new, efficient and accurate method to meet the market needs of endotoxin detection. Based on the principle of the limulus hemagglutination reaction, three systems are designed to simulate the limulus reagent reaction. It is hoped that while filling the technological gap, members from GreatBay_United can saves the future of an endangered species. [Wiki](https://2021.igem.org/Team:GreatBay_United)https://static.igem.org/peertube/streaming-playlists/hls/64d6c4f1-b4f0-44d3-8160-2e480b81a759/1e55f4ba-d464-476b-9821-37fb71708702-master.m3u8https://video.igem.org/videos/embed/dsdB2doksvt7rLVKcUKEQa11710592021-10-29T11:45:48.882Z#GreatBayUnited##HorseshoeCrabs##ArtificialLAL##SyntheticBiology##Sustainability#YES2021 Team PresentationsNOhttps://video.igem.org/w/8wQ6UgvjHRBDUN5Q1sx7Mchttps://video.igem.org/lazy-static/thumbnails/93744e9e-a8cb-4754-b140-4f6899f59cae.jpgRUBochum: Project Platylicious (2021) - Team Presentation [English]**Title:** Project Platylicious **Description:** Livestock farming, especially dairy and meat production, contributes to a large extent to CO2 emissions and thus to climate change. More and more people are questioning their diet in order to find new ways of contributing to the protection of the climate. Our goal is to use the DNA of cows and the platypus to produce milk proteins with Pichia pastoris that do not differ in their molecular structure from those of these animals. This would offer an equivalent substitute for those people who do not necessarily want to switch to plant-based milk, but do not want to contribute and enforce global warming and animal exploitation. By producing platypus-yoghurt we try to do our part while simultaneously raising awareness for the platypus, a species threatened by dairy farming. [Wiki](https://2021.igem.org/Team:RUBochum)https://static.igem.org/peertube/streaming-playlists/hls/3cfded6e-df22-49d8-8da4-934e69579f8d/013db233-0676-4514-be4c-4c070c17535e-master.m3u8https://video.igem.org/videos/embed/8wQ6UgvjHRBDUN5Q1sx7Mc8230202021-10-29T12:02:23.300Z#Food#Nutrition#Platypus#MilkYES2021 Team PresentationsNOhttps://video.igem.org/w/uRFCQeQyua1GpZUTKgDfNMhttps://video.igem.org/lazy-static/thumbnails/9290b1a1-faf2-43f1-9b4c-6472d709aa22.jpgLubbock_TTU: ChiSPY: a Chitin-Sensing Pathway for the novel detection of chytrid... (2021) - Team...**Title:** ChiSPY: a Chitin-Sensing Pathway for the novel detection of chytridiomycosis in amphibians **Description:** The global chytridiomycosis pandemic caused by fungi, Batrachochytrium dendrobatidis (Bd) and Batrachochytrium salmandoris (Bsal), is responsible for the decline and extinction of many amphibian species. Standard in-field detection methods such as MicPCR and MinION sequence internal transcribed spacer regions from swabs of epithelial cells to indicate the presence of fungal zoospores. However, these methods are expensive, time-consuming, and result in varying infection intensity across Bd strains. To address these concerns, we developed a microbial biosensor by engineering E. coli to express the chitin-activated V. cholerae one-component system coupled with a GFP reporter. Diverging from traditional detection methods that indicate zoospore presence, chitin in the cell walls of fungal zoosporangia will serve as the biomarker to indicate infection. This novel biosensor will provide field ecologists with an accessible alternative method to conduct preliminary site testing. [Wiki](https://2021.igem.org/Team:Lubbock_TTU)https://static.igem.org/peertube/streaming-playlists/hls/e9afc0cf-6144-423d-b9a9-656b30fbcfe9/cbf8205f-2f6a-4668-b9d9-c0d22a536719-master.m3u8https://video.igem.org/videos/embed/uRFCQeQyua1GpZUTKgDfNM10270242021-10-29T12:20:46.977ZYES2021 Team PresentationsNOhttps://video.igem.org/w/235cc78tbVTCiGbh6B6fF4https://video.igem.org/lazy-static/thumbnails/4d2bffef-53ea-447d-b1c0-6b7de8cb4546.jpgHong_Kong_UCCKE: A Synthetic Biology Toolkit - Bacterial-based Detection with Co... (2021) - Team...**Title:** A Synthetic Biology Toolkit - Bacterial-based Detection with Coupled Cell Proliferation Control **Description:** Biological detection systems are not often associated with cell proliferation. Here, we propose a novel bacterial-based detection toolkit where the detection of the target substance will restore normal cell proliferation in genetically modified <i>E. Coli</i> with knocked out growth-related genes. When using the toolkit, a recombinant plasmid is first transformed into a wildtype <i>E. Coli</i> to knockout two genes, using the CRISPR-Cas9 system, to reduce its growth. After the knockout, another plasmid containing a modular receptor platform (MRP), genes that restore growth rates, and a multiple cloning site (MCS), are transformed. The MRP with a customizable receptor domain can bind to its operon to activate downstream genes after binding its ligand. Genes used to restore growth and a choice of the user would be expressed. We envision the detection toolkit to have various uses, such as the amplification of signals and the detection of diseases. [Wiki](https://2021.igem.org/Team:Hong_Kong_UCCKE)https://static.igem.org/peertube/streaming-playlists/hls/086335cf-bfab-4491-8eda-0288d5be7fe9/1d9788c4-091c-4ce5-b6c4-3a7cac600441-master.m3u8https://video.igem.org/videos/embed/235cc78tbVTCiGbh6B6fF412000192021-10-29T15:19:49.686ZYES2021 Team PresentationsNOhttps://video.igem.org/w/pb9MPLXJeyDAWq1jbnZcJghttps://video.igem.org/lazy-static/thumbnails/2399312d-2e4c-4639-9d6b-e9397c0da93e.jpgIISER_Mohali: Estimating the risk of developing OSCC (Oral Squamous Cell Carcino... (2021) - Team...**Title:** Estimating the risk of developing OSCC (Oral Squamous Cell Carcinoma) by quantifying salivary biomarker levels **Description:** Oral squamous cell carcinoma (OSCC) is the most prevalent form of oral cancer. Since medical infrastructure is unaffordable to most of our society, an urgent and effective diagnostic tool is needed at present. Our kit, OSCCit aims at detecting the levels of salivary protease biomarkers that are elevated among OSCC patients. It then assesses the risk one has of developing OSCC and might suggest the user to visit a doctor. OSCCit contains an engineered bacterial cage protein - Encapsulin that has fluorophores internally and a substrate sequence externally. When protease biomarkers cleave the latter, fluorescence occurs. This characteristic emission frequency allows us to verify the presence of the protease and estimate its concentration through the emission intensity. Protease biomarkers maintain their activity, giving us the advantage of working directly with a patient s saliva without any processing. Additionally, 3D printed hardware parts ensure the kit can be used with a smartphone. [Wiki](https://2021.igem.org/Team:IISER_Mohali)https://static.igem.org/peertube/streaming-playlists/hls/bbad0b40-4040-4cba-a7ba-ea319e29cc17/d381d896-b998-4a08-b64f-265635af728d-master.m3u8https://video.igem.org/videos/embed/pb9MPLXJeyDAWq1jbnZcJg118801212021-10-29T15:29:30.533ZYES2021 Team PresentationsNOhttps://video.igem.org/w/t9Ncx2WDrGvppo1u7hDxKDhttps://video.igem.org/lazy-static/thumbnails/802c11cb-63b1-412f-8b43-afbcdda2341d.jpgHumboldt_Berlin: Target Taxi <i>Salmonella</i> minicells as drug delivery system (2021) - Team Pr...**Title:** Target Taxi <i>Salmonella</i> minicells as drug delivery system **Description:** Cancer is a global threat to humankind being the cause of million deaths per year. Chemotherapy often remains the last resort, with the major drawback of being non-specific. To overcome this limitation we aim to design genetically modified minicells derived from non-pathogenic <i>Salmonella</i> Typhimurium. We plan to equip our chassis to specifically target cancer tissue and inject on site a cell growth-inhibiting peptide into malignant cells. In a first approach, we validate the chassis-cell interaction by modifying the minicells with lectins that specifically adhere to a targeted cell line. Subsequently, via the type-III secretion system of <i>Salmonella</i>, the anti-cancer peptide Pep8 will be translocated into the cancer cell, and inhibit further uncontrolled cell growth. We believe our approach will provide insights to crucial aspects of cancer research such as therapy-specificity and limitation of side effects. [Wiki](https://2021.igem.org/Team:Humboldt_Berlin)https://static.igem.org/peertube/streaming-playlists/hls/dbe12a40-cd98-4cf4-aef5-6238bfea7ac7/c168bf1e-736e-4fb1-89a2-fc49c9f2d02f-master.m3u8https://video.igem.org/videos/embed/t9Ncx2WDrGvppo1u7hDxKD11990362021-10-29T15:52:45.264ZYES2021 Team PresentationsNOhttps://video.igem.org/w/6T5zUgW1d5tKADY8tvKcRuhttps://video.igem.org/lazy-static/thumbnails/92bca01a-063f-4d66-a8c9-6670709f1e7a.jpgUMA_MALAGA: Oil Together Painting, art from waste (2021) - Team Presentation [English]**Title:** Oil Together Painting, art from waste **Description:** How about converting a residual source into a source of creativity and expression? For every single litre of waste cooking oil (WCO) spilled, more than 1,000 litres of water are polluted. While classic recycling is unattractive, synthetic biology is a powerful tool in order to change this view and attract people to the new paradigm of a circular bioeconomy. To do so, we aim to expand the molecular toolbox of the yeast Yarrowia lipolytica for developing a bioprocess that creates value from waste. This microorganism stands out due to its ability to use oleaginous substrates to grow. First, we are implementing the full carotenoid biosynthetic pathway in this chassis. Besides, we are optimizing the stock of WCO as its carbon and energy source to produce sustainable paints based on these carotenoids pigments. Finally, we will improve the extraction of pigments and preparation of bio-paints for scaling-up. [Wiki](https://2021.igem.org/Team:UMA_MALAGA)https://static.igem.org/peertube/streaming-playlists/hls/2f9f736c-508f-4c35-b32a-26bddd8837ea/0c45b038-ac50-4798-9fd3-f8b50b35f7e9-master.m3u8https://video.igem.org/videos/embed/6T5zUgW1d5tKADY8tvKcRu8530232021-10-29T16:10:46.093ZYES2021 Team PresentationsNOhttps://video.igem.org/w/aPnqiK3ZhsrJnXetrWK49Zhttps://video.igem.org/lazy-static/thumbnails/a33e7d62-c89f-411e-ab05-e45230438abe.jpgKAIT_Japan: Dietary habits changed by E. coli (2021) - Team Presentation [English]**Title:** Dietary habits changed by E. coli **Description:** We thought that since E. coli is easy to grow and transform, we could create new foods by incorporating the enzymes of the microorganisms used in fermented foods. Although E. coli is often disliked by people, it is the perfect bacteria to use for experiments. By making E. coli familiar through its use in food, We want people to know that E. coli is an amazing organism. We also believe that the ease with which E. coli can be grown makes it possible to produce fermented foods in a non-specific environment. Fermented foods are known for their ease of nutrient absorption and long-term preservation, so We believe that they could be a solution to hunger. [Wiki](https://2021.igem.org/Team:KAIT_Japan)https://static.igem.org/peertube/streaming-playlists/hls/4f7f67b4-9310-4db8-be27-be128e6de66d/26ba53c9-384f-4f74-8449-cc6837d75e4e-master.m3u8https://video.igem.org/videos/embed/aPnqiK3ZhsrJnXetrWK49Z5350182021-10-29T16:14:57.839ZYeastE.coliLactobacillusAcetobacterYES2021 Team PresentationsNOhttps://video.igem.org/w/vXoXmWQPaZSNQNbMmNABGxhttps://video.igem.org/lazy-static/thumbnails/2c47b259-47d2-4d0d-96dc-baaeb9dfb6ea.jpgSMS_Shenzhen: GUM OVER (2021) - Team Presentation [English]**Title:** GUM OVER **Description:** As one of the most popular groceries, chewing gum is stuck on the table, bench, and street because of irresponsible disposal. Primarily made up of ethyl-vinyl acetate, polyisobutylene and polyisoprene, they are not water-soluble or easily degraded. Removal is generally achieved by steam jet and scraper, but the process is slow and labour-intensive. Other environmental and health problems could also be caused by discarded gum. This year, SMS_Shenzhen aims at fighting against chewing gum. We focus on LCP and laccase in wet lab, expressing them and improving them by directed evolution and rational design. In dry lab, our modelling project optimizes laccase's enzyme activity and verifies the improvement quantitatively. Outside the lab, we conduct stakeholder interviews to collect suggestions for our hardware design. We also organize all-aged education, including lectures and an art exhibition, to raise the public's awareness of protecting the environment and introduce the audience to synthetic biology. [Wiki](https://2021.igem.org/Team:SMS_Shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/f295131f-d252-4425-8791-99f1d1f3c00b/e4a3b17d-b1ca-4460-84f3-9ba9c809c4f4-master.m3u8https://video.igem.org/videos/embed/vXoXmWQPaZSNQNbMmNABGx9690432021-10-29T15:39:01.729ZEnzymesGumPollutionYES2021 Team PresentationsNOhttps://video.igem.org/w/b297vqjAYY83z1QKDKmgWahttps://video.igem.org/lazy-static/thumbnails/710035e2-5a31-4891-8e1d-096a1d3b13d6.jpgNCHU_Taichung: Artificial endophyte for future agriculture (2021) - Team Presentation [English]**Title:** Artificial endophyte for future agriculture **Description:** Our main goal is to use the synthetic biological strategy for achieving an example of circular agriculture. Rice could feed half of the global population, and tons of rice straws are produced after harvest. Inappropriate rice straws management, straws burning, causes problems releasing CO<sub>2</sub>, PAHs, and PM2.5. In this project, we constructed the Clostridial cellulase genes within Bacillus subtilis WB800 and the cellulosomal enzymes could be formed. It will be used for effective straws decomposition and used as a medium for culturing our beneficial endophyte. Furthermore, we constructed an artificial endophyte through versatile biostimulant, pyrroloquinoline quinone (PQQ) producing Bacillus subtilis and cultured by saccharified straw liquid. The PQQ containing broth will exogenously apply to the rice and/or other plants to promote their growth. Our example for circular agriculture could be completed by the above strategy, while agricultural waste can be recycled into valuable products and also could reduce CO<sub>2</sub> emission. [Wiki](https://2021.igem.org/Team:NCHU_Taichung)https://static.igem.org/peertube/streaming-playlists/hls/51242133-2812-4bed-974a-ba3c0e33ad11/0cade3d4-883b-4b21-ba8f-d48ba76175f8-master.m3u8https://video.igem.org/videos/embed/b297vqjAYY83z1QKDKmgWa10170632021-10-29T16:04:03.969Z#CircularAgricultureYES2021 Team PresentationsNOhttps://video.igem.org/w/bsbckZoJNUbnwYgMJV69s2https://video.igem.org/lazy-static/thumbnails/43636fc3-201e-4e41-940d-e5b62007b82f.jpgBielefeld-CeBiTec: P.L.A.N.T. Plant-based Ligand Activated Noxious agent Tracker... (2021) - Team...**Title:** P.L.A.N.T. Plant-based Ligand Activated Noxious agent Tracker - make the invisible visible **Description:** As an invisible threat to the environment and human life, remnants of chemical weapons from both world wars still contaminate the soil. In Germany alone, there are over 200 suspected locations. We develop a plant-based detection system for degradation products of chemical weapons that is highly specific and allows cost-efficient screening of large areas while being easy to use. Our plant indicates the presence of toxic chemicals by changing its color to red. For this, we introduce two new reporter systems called RUBY and ANTHOS, enabling the synthesis of the plant pigments betalains or anthocyanins, respectively. If the chemical is present, it is specifically bound by a receptor, which then activates a signaling cascade, resulting in the synthesis of the pigments. Both computational design and site-directed mutagenesis are used to design new receptor proteins. In the future, our plant allows the detection of further chemicals by replacing the specific receptor. [Wiki](https://2021.igem.org/Team:Bielefeld-CeBiTec)https://static.igem.org/peertube/streaming-playlists/hls/54a30204-6c9b-4396-bada-79c5c29cb11d/2f10e6d6-095c-45a0-921b-f5c4248ea8c1-master.m3u8https://video.igem.org/videos/embed/bsbckZoJNUbnwYgMJV69s2109601392021-10-29T16:28:02.776ZYES2021 Team PresentationsNOhttps://video.igem.org/w/2JKMmLdaj39BSzUekZeVezhttps://video.igem.org/lazy-static/thumbnails/574e08ee-e8a6-4024-9f84-efdad029ca15.jpgOpen_Science_Global: Frugal Biofoundries for Distributed Enzyme Manufacturing (2021) - Team Prese...**Title:** Frugal Biofoundries for Distributed Enzyme Manufacturing **Description:** Biotechnology can help avert human civilization's looming mass extinction caused by fossil energy. However, intellectual property, skills, and high costs of hardware and wetware create massive barriers. These barriers were profoundly felt throughout the pandemic as sparse access to bio-manufacturing infrastructure severely limited medical relief, testing, and vaccination. With an internationally distributed team of 10 nationalities and 4 laboratories, we aim to break these barriers by frugally producing and purifying thermostable enzymes essential for synthetic biology solutions. We have established a pipeline for enzyme production in frugal bio-foundries that s based on open-sourced software, hardware, material transfer agreement, and wetware constructs of B. subtilis for reducing protein extraction costs. Our genetic constructs will be freely distributed by FreeGenes. To gauge the global needs of implementing a frugal bio-foundry in different parts of the world, we set up a hackathon in partnership with JOGL. Our project contributes towards democratizing biotechnology. [Wiki](https://2021.igem.org/Team:Open_Science_Global)https://static.igem.org/peertube/streaming-playlists/hls/0e115bcf-a3d1-4539-b9b1-bca191b0673f/298c7f4f-26aa-4ad3-9b1d-b8af7c9203a4-master.m3u8https://video.igem.org/videos/embed/2JKMmLdaj39BSzUekZeVez11590552021-10-29T16:43:00.301ZFreegenesGlobalDiybioDemocratizedOpensourceYES2021 Team PresentationsNOhttps://video.igem.org/w/sXXQmiMJNxdz8f7kURzJd6https://video.igem.org/lazy-static/thumbnails/e5f24774-df80-4fcb-9456-779b9e4f5b1a.jpgHKIS: Vib-Check (2021) - Team Presentation [English]**Title:** Vib-Check **Description:** Vib-Check is a two-part detection and purification system for Vibrio bacterium in Oysters. Vibrio, being the leading cause of seafood-related deaths around the world, is a hazard that has yet to be tackled effectively. Vib-Check aims to provide a method for affordable and effective detection of Vibrio pathogens in oyster batches that the average fisher can use, something no product is currently capable of. In the event of a positive result, aquaculturists can use our specially designed peptides expressed by transgenic microalgae for the effective and convenient purification of pathogens in oysters. [Wiki](https://2021.igem.org/Team:HKIS)https://static.igem.org/peertube/streaming-playlists/hls/da5debd3-e922-4bda-85b0-cf02b1a91c1d/d6506661-4891-4c0d-aabf-af62d7ad6fc8-master.m3u8https://video.igem.org/videos/embed/sXXQmiMJNxdz8f7kURzJd69320222021-10-29T17:04:28.386ZHongKongInternationalSchoolVib-checkDetectionDiagnosticsPurificationYES2021 Team PresentationsNOhttps://video.igem.org/w/ioKa7acAwxhxGELfYqMAdUhttps://video.igem.org/lazy-static/thumbnails/d2c15b84-ba2e-4df4-ae92-02d175004ad0.jpgUNIZAR: NANOBODY DE NOVO DISCOVERY BY ARTIFICIAL CDR RECOMBINATION (2021) - Team Presentation [En...**Title:** NANOBODY DE NOVO DISCOVERY BY ARTIFICIAL CDR RECOMBINATION **Description:** Nanobodies are proteins that selectively bind to an antigen. Due to its smaller size, they present advantages in diagnosis and therapeutics. However, they are animal-derived, expensive and difficult to produce. Complementary determining regions or CDRs (CDR1, CDR2, CDR3) are unique nanobody regions involved in antigen binding. However, even nanobodies that bind to the same antigen have different binding affinities, as they present different CDRs. Our goal is creating a library of artificially developed nanobodies that bind to a specific antigen. Inspired by nature, this is achieved by random in-vitro recombination of the different CDR genetic sequences of already characterized nanobodies that bind to said antigen. These newly formed nanobody gene fragments are expressed in E. coli, generating a library for the screening of nanobodies with higher binding affinity than the starting ones. This way, our system improves the traditional method for nanobody production, being faster, cheaper and cruelty-free. [Wiki](https://2021.igem.org/Team:UNIZAR)https://static.igem.org/peertube/streaming-playlists/hls/8cd8510d-38c2-4461-9ecf-8cb053f616bc/8f740384-69dc-479b-9401-8dc618e80249-master.m3u8https://video.igem.org/videos/embed/ioKa7acAwxhxGELfYqMAdU9680552021-10-29T17:25:02.281ZNanobodyYES2021 Team PresentationsNOhttps://video.igem.org/w/rtco5ELamKYV8pX1dGRB76https://video.igem.org/lazy-static/thumbnails/0f7879cf-e7a9-442f-a12a-1962fd8892d1.jpgSorbonne_U_Paris: Chlamy'n Space (2021) - Team Presentation [English]**Title:** Chlamy'n Space **Description:** Acute or chronic exposure to ionizing radiation (UVC, gamma rays, X rays ) leads to the formation of reactive oxygen species (ROS) which affect the genome and the proteome of cells. Thus, although photosynthetic microorganisms such as Chlamydomonas reinhardtii constitute one of the main hopes for developing Bioregenerative Life-Support System during long-term space travel, their use is called into question by the decrease of efficiency of the photochemistry and by the growth arrest caused by ROS. Our project aims to make Chlamydomonas reinhardtii produce a peptide complexing with the Mn2+ ion inspired by a metabolite found in the radioresistant organism Deinococcus radiodurans and acting as an antixoidant. This study requires to demonstrate a decrease in ROS within the cell during production of the peptide and verifying the growth of microalgae cultivated in minimum medium (photosynthesis dependent growth). [Wiki](https://2021.igem.org/Team:Sorbonne_U_Paris)https://static.igem.org/peertube/streaming-playlists/hls/ce408fd8-4ad0-4a68-b827-f0aca227cf75/2ba8b579-7e96-4e1b-962b-6759b8e56e36-master.m3u8https://video.igem.org/videos/embed/rtco5ELamKYV8pX1dGRB769140292021-10-29T17:35:27.122ZIonizingRadiationChlamydomonasreinhardtiiModularCloningOxydativeStressSpaceExplorationYES2021 Team PresentationsNOhttps://video.igem.org/w/fncqg3gMmSeSZpALRQ3zNChttps://video.igem.org/lazy-static/thumbnails/58cf0116-bb7e-469d-b236-dd79ca6f76d3.jpgEdinburgh: The SuperGrinder: value from waste (2021) - Team Presentation [English]**Title:** The SuperGrinder: value from waste **Description:** We aim to revolutionise the extraction of valuable materials from the most common recalcitrant waste polymers, including cellulose, keratin, chitin and PET. These are all resistant to natural biodegradation but hold great potential for integration to the circular economy. Current treatments are often unsustainable, requiring harmful chemicals, high energy and resulting in downcycling of materials to lower value products. Our team seeks to combine physical and enzymatic treatment of these polymers by constructing a Super Grinder , featuring enzymes immobilised on silica beads using silica-binding tags. These enzyme-laden silica beads both contribute to the physical grinding mechanism and theoretically ensure that enzymes will have greater access to the substrate surface. Immobilisation may have the added benefits of improving enzyme stability and recyclability, and our design operates at ambient temperatures, decreasing its carbon footprint and cost. We also aim to improve enzyme efficiency using directed evolution techniques. [Wiki](https://2021.igem.org/Team:Edinburgh)https://static.igem.org/peertube/streaming-playlists/hls/745598df-cc4b-43fd-8676-68c7a389b024/12a11856-b894-4d42-ae1b-83266a517994-master.m3u8https://video.igem.org/videos/embed/fncqg3gMmSeSZpALRQ3zNC11980512021-10-29T18:35:38.128ZBioeconomySustainableCirculareconomyEnzymetechnologyUpcycleYES2021 Team PresentationsNOhttps://video.igem.org/w/1W87xX25u2s7NxZLbK2Mnkhttps://video.igem.org/lazy-static/thumbnails/6cbb56cb-20b4-4b83-abd6-cd2a1d4ea68b.jpgFAFU-CHINA: 'Mystery of Fragrance':Photoperiod Microbial Fragrance Production Sy... (2021) - Team...**Title:** 'Mystery of Fragrance':Photoperiod Microbial Fragrance Production System **Description:** This year, our team developed a system of aroma production by light-regulated microorganisms, which gives microorganisms the ability to produce aroma by regulating endogenous pathways and cutting into different exogenous enzymes, and through mathematical modeling, determine its optimal culture conditions so that it stably exists in the developed system. By adding light-controlled switch elements to microorganisms, the concentration of the aroma can be changed according to the intensity of light. The inhibition of linalool synthase in Escherichia coli is relieved under light, and linalool can be produced. Saccharomyces cerevisiae can produce nerol in dark conditions, and the related proteins are eventually degraded under the light. Finally, we designed an ingenious hardware device for the whole system, which effectively solved the problem of microbial leakage and aroma diffusion. Looking to the future, our team hopes to apply the system to the development of new nightlights and into people's lives. [Wiki](https://2021.igem.org/Team:FAFU-CHINA)https://static.igem.org/peertube/streaming-playlists/hls/078e8c0d-fc1c-4f69-8972-5c133a4764c1/b133171f-7eb1-4ea2-a5ab-0a280397e0d8-master.m3u8https://video.igem.org/videos/embed/1W87xX25u2s7NxZLbK2Mnk11810372021-10-29T19:25:39.449ZYES2021 Team PresentationsNOhttps://video.igem.org/w/p2oSXXmTX54tMFMMv7ywZqhttps://video.igem.org/lazy-static/thumbnails/cd7d2ac5-604c-40ff-b29c-d4cb16076298.jpgHong_Kong_HKU: Co-culturing PET-degrading and sucrose-dependent E. coli with suc... (2021) - Team...**Title:** Co-culturing PET-degrading and sucrose-dependent E. coli with sucrose-secreting S. elongatus **Description:** HKU iGEM team is developing a self-sustaining and solar-driven bioreactor that digests PET by utilising the symbiotic relationship between the bacteria Escherichia coli and the cyanobacteria Synechococcus elongatus. In the co-culture, E. coli (Strain BL21-DE3) is engineered to express PETase and MHETase enzymes, as well as absorb sucrose secreted by S. elongatus as its energy source. The enzymes facilitate the degradation of PET into its monomers - terephthalic acid and ethylene glycol, which can then be repurposed in the creation of new bioplastics to maintain a circular and greener supply chain. [Wiki](https://2021.igem.org/Team:Hong_Kong_HKU)https://static.igem.org/peertube/streaming-playlists/hls/ba74084e-b56e-4a24-82fc-a33cb4cfcc7a/58680469-0ad7-479d-a08b-0e0359947aca-master.m3u8https://video.igem.org/videos/embed/p2oSXXmTX54tMFMMv7ywZq11530412021-10-30T00:04:48.233ZHkuevolveEnvironmentPlasticCo-cultureCyanobacteriaYES2021 Team PresentationsNOhttps://video.igem.org/w/hL6jHBB9BZRhH5HsTaKsZNhttps://video.igem.org/lazy-static/thumbnails/fb4573f3-b704-4bd4-bb15-92278bab3b45.jpgTU_Kaiserslautern: MoClo Mania - revolutionizing protein production by establish... (2021) - Team...**Title:** MoClo Mania - revolutionizing protein production by establishing the Modular Cloning system in Leishmania tarentolae **Description:** Large quantities of protein are needed every year for research and medical purposes. Production of heterologous proteins in genetically modified microbial hosts has long been established as a biotechnological standard. Still, the production of proteins destined for therapeutic application in humans, often proves to be challenging for conventional host organisms due to complex post-translational modifications most mammalian proteins undergo. Specific modification patterns, such as human-like glycosylation, cannot be replicated in microbial expression hosts, yet are essential to the protein s functionality. Recently, the protozoan parasite Leishmania tarentolae has emerged as a favorable eukaryotic expression host because of its human-like glycosylation capabilities. To facilitate the use of Leishmania tarentolae, we established a library of genetic parts suitable for the usage of the Modular Cloning system within Leishmania tarentolae. This paves the way to a versatile and expandable gene part collection, making the expression of human-like glycosylated proteins more feasible and effective. [Wiki](https://2021.igem.org/Team:TU_Kaiserslautern)https://static.igem.org/peertube/streaming-playlists/hls/87ba3984-9a3e-45e7-b970-fd58bc5f42e8/4724c258-e18d-417d-b797-ad2cacec48c5-master.m3u8https://video.igem.org/videos/embed/hL6jHBB9BZRhH5HsTaKsZN12000372021-10-30T07:31:15.402ZModulaCloningLeishmaniaProteinProductionGlycosylationYES2021 Team PresentationsNOhttps://video.igem.org/w/stCSPpvaqLtoWJaoLjnq4Dhttps://video.igem.org/lazy-static/thumbnails/c93173b3-ea43-43e5-9e42-5248f94dda5a.jpgFCB-UANL: Synbiofoam: a synthetic alternative to fluorosurfactants (2021) - Team Presentation [En...**Title:** Synbiofoam: a synthetic alternative to fluorosurfactants **Description:** The incidence and intensity of forest and urban fires have increased throughout the last decades; to combat them, firefighting foams containing fluorosurfactants (a group of extremely pollutant chemicals) have been used for years without acknowledging their impact. These have contaminated ecosystems, harming both wildlife and human populations. Thus, we propose the creation of an environmentally friendly firefighting foam that will be produced using synthetic biology techniques. To achieve this, we have continued our work on Synbiofoam, a firefighting foam composed of foaming and stabilizing agents like Ranaspumins (a series of proteins from a native frog) and surfactin and biofilm, both naturally produced by B. subtilis, and whose production will be regulated through a circuit intended to control the bacterium s own regulatory network. As we continue to validate and modify our project based on our stakeholders responses, we believe that our project will positively impact our society and environment. [Wiki](https://2021.igem.org/Team:FCB-UANL)https://static.igem.org/peertube/streaming-playlists/hls/d66969a6-2370-4ff0-b3d9-09c48b5b621b/3c68ad7a-6717-404d-b6a4-dcb1f389ddcd-master.m3u8https://video.igem.org/videos/embed/stCSPpvaqLtoWJaoLjnq4D117102782021-10-30T07:55:12.607ZYES2021 Team PresentationsNOhttps://video.igem.org/w/jWrWEVsvPkysjYiHdJqUomhttps://video.igem.org/lazy-static/thumbnails/aabcb48c-84f0-467d-ac23-c0af926d620a.jpgMTU-CORK: Bioremediation of MARS using engineered bacteria in a novel housing sy... (2021) - Team...**Title:** Bioremediation of MARS using engineered bacteria in a novel housing system, the Biofrag 2.0 **Description:** Mars holds great interest to humanity and commercial applications alike due to its suitability for potential habitation. One issue withstanding are the components of the planets soil that contains toxic levels of sodium perchlorate making growth of food impossible. Our team has devised a solution by engineering E.coli with genomic islands from A. suilum which breakdown the sodium perchlorate in the soil through the enzymes Perchlorate reductase and Chlorite dismutase. The bacteria is housed within a 3D printed, novel, spherical design allowing biofilm formation, bacterial proliferation, enzyme distribution and addition of a seed for bioremediating and cultivating the Martian soil. This design has been titled the Biofrag 2.0. The Biofrag can be used within specially contained Biofrag Isolation Units which allow for contained remediation of soil whilst preventing widespread contamination. Each box also allows for optimal conditions for growth of both flora and microbiome within the Biofrag. [Wiki](https://2021.igem.org/Team:MTU-CORK)https://static.igem.org/peertube/streaming-playlists/hls/995ea5ac-23d5-4ed0-878b-662fbe1dc300/5da073e6-d92a-4570-b2be-2f053ea124c8-master.m3u8https://video.igem.org/videos/embed/jWrWEVsvPkysjYiHdJqUom11850292021-10-30T12:40:10.832ZPerchlorateBiofragSapceMarsBioinformaticsYES2021 Team PresentationsNOhttps://video.igem.org/w/xvM8bZRfrTn5N7Vp8eaJRWhttps://video.igem.org/lazy-static/thumbnails/eb3789a5-4ec4-4e7f-9f36-cc2943b98822.jpgDNHS_SanDiego_CA: Vigilantly Optimizing Cancer Detection: Using E. coli to detec... (2021) - Team...**Title:** Vigilantly Optimizing Cancer Detection: Using E. coli to detect volatile organic compounds in the breath **Description:** Lung cancer remains the deadliest cancer type, and is often undetected until stages 3 or 4, when it becomes difficult to treat [1]. W decided to investigate a noninvasive method: VOC (volatile organic compound) detection using a breath test. Our goal is to use the K-12 strain of E. coli bacteria that will produce a quantifiable color change in response to the presence of a VOC. Using published research, we identified a set of VOCs whose concentration in the breath is higher in lung cancer patients: propanol, trimethylbenzene, toluene, ethylbenzene, styrene, hexanal, acetone, and isoprene [2]. We will insert promoters that are induced by these VOCs into plasmids and a GFP gene that will produce a color change, transforming E. coli with these plasmids. This product would be implemented as a test that could use one breath sample to detect the levels of 8 separate VOCs. 1. https://www.cancer.org/cancer/lung-cancer/detection-diagnosis-staging/how-diagnosed.html 2. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6044508/ [Wiki](https://2021.igem.org/Team:DNHS_SanDiego_CA)https://static.igem.org/peertube/streaming-playlists/hls/ff33ad29-afa2-4291-8cd3-dcffdd6f5610/cd85fd51-793c-4c78-b48b-4a2de8c55116-master.m3u8https://video.igem.org/videos/embed/xvM8bZRfrTn5N7Vp8eaJRW10600182021-10-30T14:01:15.031ZYES2021 Team PresentationsNOhttps://video.igem.org/w/oibw6kfK2qKaoU1s5PNiKhhttps://video.igem.org/lazy-static/thumbnails/78273dc6-34d2-4d02-badd-95e97ffca3d3.jpgFZU-China: Development of optogenetic switch-based gut bacteria to potentially a... (2021) - Team...**Title:** Development of optogenetic switch-based gut bacteria to potentially alleviate depression by supplying GABA **Description:** Depression is a common but serious mood disorder. Although there are treatments for depression, the possible adverse effects associated with antidepressant medication and the decline of treatments from patients can be problematic. Gamma-aminobutyric acid (GABA), as an important inhibitory neurotransmitter, has been shown to play a significant role in the regulation of mood disorders. Studies show that in healthy individuals, GABA-producing pathways are actively expressed in human gut microbiota. Based on these findings, we aim to engineer a dynamically controlled gut bacteria which can synthesize GABA to alleviate depression. We engineer a strain of E. coli to contain an optogenetic switch. When the switch is on, GadB (enzyme) and X174E (lysis protein) can be made. GadB can catalyze the conversion of glutamate (which is abundant in foods) into GABA inside the cell. After the GABA concentration reaches a threshold, X174E can lyse the cell and release GABA into the environment. [Wiki](https://2021.igem.org/Team:FZU-China)https://static.igem.org/peertube/streaming-playlists/hls/b48f2d54-40bd-4ef3-a426-db0db69de752/a99c4f13-a48e-4f9f-bc20-2208a7a6d253-master.m3u8https://video.igem.org/videos/embed/oibw6kfK2qKaoU1s5PNiKh11820102021-10-30T17:15:53.617ZYES2021 Team PresentationsNOhttps://video.igem.org/w/gNF72fmiBrTcw2eAJArgHqhttps://video.igem.org/lazy-static/thumbnails/b08690d0-2d00-466c-8c6f-c2752769c97d.jpgZJU-China: Liver Guard: Precise therapy of hepatocellular carcinoma based on eng... (2021) - Team...**Title:** Liver Guard: Precise therapy of hepatocellular carcinoma based on engineered oncolytic adenovirus **Description:** Oncolytic virus (OV) is a promising method to treat hepatocellular carcinoma, yet it has not been widely used clinically due to low infection efficiency, insufficient specificity, compromised intertumoral transmission and etc. Our project designed a genetically modified adenovirus using synthetic biology approach to overcome current problems with oncolytic virus. We also enables engineered adenovirus to escape from immunity trap with immunocamouflage, which increases the titre of viral infection. We hoped that our project can give a new insight into precise oncolytic treatment of hepatocellular carcinoma. [Wiki](https://2021.igem.org/Team:ZJU-China)https://static.igem.org/peertube/streaming-playlists/hls/7ffd6453-dbd2-4831-a5b9-482713d262c6/2a902c69-e0b4-4654-ae70-c19d8d93b89f-master.m3u8https://video.igem.org/videos/embed/gNF72fmiBrTcw2eAJArgHq114004002021-10-30T17:41:13.991ZAsia,Therapeutics,ChinaYES2021 Team PresentationsNOhttps://video.igem.org/w/gkQwZ1Voi5pFvu69Hi435Lhttps://video.igem.org/lazy-static/thumbnails/7c58f3ee-ada1-49d7-b070-d8b3ff0f7efb.jpgIISER-Pune-India: SynBactory - Recycling carbon dioxide for biomanufacturing usi... (2021) - Team...**Title:** SynBactory - Recycling carbon dioxide for biomanufacturing using a co-culture of cyanobacteria and E. coli **Description:** Fossil fuels are the primary contributors to greenhouse gas emissions, making chemical synthesis based on petrochemical feedstocks unsustainable. Photoautotrophic microbial biomass is a promising alternative to produce renewable carbon feedstocks for chemical synthesis. We have cultured previously engineered cyanobacteria, S. elongatus UTEX 2973, which can recycle carbon dioxide as secreted sucrose. Parallelly, we have engineered butanol-producing E. coli KJK01 to consume sucrose as a carbon source. Growing the two organisms together in a co-culture would allow for a sustainable, single-step, single-pot conversion of carbon dioxide into biobutanol. Our in silico models probed the stability and dynamics of the co-culture system to identify optimal conditions for the production of butanol. We used genome-scale metabolic models to identify key gene deletion and overexpression targets to improve butanol and sucrose yields. Furthermore, we designed constructs to characterise the strengths of native promoters to boost sucrose secretion in cyanobacteria. [Wiki](https://2021.igem.org/Team:IISER-Pune-India)https://static.igem.org/peertube/streaming-playlists/hls/7c3e1f2d-738f-4d52-bb22-2be4c30e8704/10e61c83-184c-46f9-8726-6a1f098d82d3-master.m3u8https://video.igem.org/videos/embed/gkQwZ1Voi5pFvu69Hi435L106202502021-10-30T15:12:22.601ZCyanobacteriaManufacturingSustainabilityCocultureClimateChangeYES2021 Team PresentationsNOhttps://video.igem.org/w/tgMjB4n2Mc5opyEGQdfWAchttps://video.igem.org/lazy-static/thumbnails/a0a36055-8fcd-4fa2-981c-a9fb7c55459e.jpgLINKS_China: NeoLeathic Age Revolutionary Leather Substitute from Kombucha, Spid... (2021) - Team...**Title:** NeoLeathic Age Revolutionary Leather Substitute from Kombucha, Spider-silk, and Natural Dyes **Description:** The booming of the fashion industry has led to rising demand for leather. However, current industrial leather production causes environmental and ethical problems such as water pollution and animal cruelty. LINKS_China 2021 aims to create a sustainable and humane leather substitute using bacterial cellulose (BC) produced by co-culturing Komagataeibacter with Saccharomyces cerevisiae. By engineering S. cerevisiae, we induced transgenic expression of artificial spider-silk proteins fused with cellulose-binding matrixes, which increases the tensile strength and flexibility of BC membrane upon binding. Additionally, we enabled our engineered S. cerevisiae to synthesize ethyl acetate, giving our membrane a fruity fragrance. To endow our leather with more fashionable features, we used engineered Escherichia coli to synthesize different di-halogenated indigoid dyes for coloration. We expect our novel leather to be a transformative product that will continue the prosperity of fashion industry through a more humane and environmentally friendly technology. [Wiki](https://2021.igem.org/Team:LINKS_China)https://static.igem.org/peertube/streaming-playlists/hls/dcdad48d-8398-46de-9fa5-84ffe7bc4d47/9fad342e-3792-45d9-9a6e-98214836d334-master.m3u8https://video.igem.org/videos/embed/tgMjB4n2Mc5opyEGQdfWAc1165015342021-10-30T18:05:47.265ZNeoLeatherKombuchaLuxuriesSpiderSilkTyrianPurpleYES2021 Team PresentationsNOhttps://video.igem.org/w/kogCEn5zChsjBohLpPWqHzhttps://video.igem.org/lazy-static/thumbnails/1abfeade-afa5-4c16-8595-66675c789fa6.jpgAISSU_Union: Memory bread Constructing Catechin Production Pathway in Saccharomy... (2021) - Team...**Title:** Memory bread Constructing Catechin Production Pathway in Saccharomyces Cerevisiae **Description:** Increasing ageing of population has become a global issue, and the cognitive ability of those seniors, an important measurement of this group s healthy level. Researches have proven that flavonoids could be potential in improving the seniors cognitive ability. We selected nine different genes from plants to build up two plasmids and used Saccharomyces cerevisiae as the chassis for expression. The first plasmid uses L-Tyrosine to produce naringenin, a central molecule in the production of flavonoids. The second plasmid converts naringenin into the final product -- catechin. As a crucial member of flavonoids, catechins plays a significant role in improving cognition and cardiovascular health. We hope that catechins could be used as food additive in elders daily diet, and therefore improve their memory. And we believe that it has the potential to become a new solution towards seniors health in the future. [Wiki](https://2021.igem.org/Team:AISSU_Union)https://static.igem.org/peertube/streaming-playlists/hls/9cf9a18f-c2ba-435c-975a-792a3677b78b/f6cbbacc-0329-417f-b15c-dac162271b0c-master.m3u8https://video.igem.org/videos/embed/kogCEn5zChsjBohLpPWqHz10970302021-10-30T19:24:15.446ZMemoryBreadCatechinYES2021 Team PresentationsNOhttps://video.igem.org/w/5YgHEmZhaWkv6cfG8HMvGhhttps://video.igem.org/lazy-static/thumbnails/3024fbe7-ebc3-4aac-abdd-5d66321d73e7.jpgPatras: PGasus: A comprehensive workflow for the identification & functional cha... (2021) - Team...**Title:** PGasus: A comprehensive workflow for the identification & functional characterization of PGx variants **Description:** iGEM Patras 2021 goal is to characterize the impact of genomic variants, derived from targeted panel-based resequencing using a portable next-generation sequencer, on the enzymatic activity of CYP2D6 and CYP2C19 enzymes, responsible for the metabolism of clinically used drugs, using in vitro assays. These variants will be engineered into gene constructs, via site-directed mutagenesis in eukaryotic 293FT cells, encoding these enzymes and will be subsequently characterized as deleterious or benign, and compared against in silico prediction scores. Furthermore, to validate the mechanisms underlying the molecular interaction between the mutated CYP isoforms and the chemical substrates, we used molecular simulation methods like docking, to confirm the potential deleterious effect of the identified PGx variants. [Wiki](https://2021.igem.org/Team:Patras)https://static.igem.org/peertube/streaming-playlists/hls/283fe47b-504f-4d97-abd0-514282ac542c/aecbf424-395b-4e99-9ff1-444774c58dbe-master.m3u8https://video.igem.org/videos/embed/5YgHEmZhaWkv6cfG8HMvGh9180872021-10-30T20:59:07.585ZPharmacogenomicsPGasusCYP450IndividualizedTherapyPGxYES2021 Team PresentationsNOhttps://video.igem.org/w/3dB9HK38s8DFB7J46tg9tfhttps://video.igem.org/lazy-static/thumbnails/080d906b-89b5-452d-9f29-700ed7fdb5e7.jpgABSI_Kenya: Development of a Portable Biosensor for Detection of Selected Contam... (2021) - Team...**Title:** Development of a Portable Biosensor for Detection of Selected Contaminants in Drinking Water **Description:** Access to safe drinking water is essential for humans. However, drinking water quality is a major source of human infections in low and middle-income countries. Conventional methods for detecting contaminants in drinking water is time-consuming, labour-intensive and expensive. This study aims to overcome this challenge by constructing and validating a cheap, easy to use portable device for the detection of selected contaminants in drinking water. The Build, Test, Design cycle will be employed. Appropriate parts will be identified for the selected contaminants and obtained from the iGEM repository. Modelling and simulation will be done to select the best combination. Next, the designed model will be tested for the detection of specific contaminants. Findings from this study will demonstrate the importance of synthetic biology in solving human problems by providing a user-friendly, inexpensive, home-deployable biosensor. [Wiki](https://2021.igem.org/Team:ABSI_Kenya)https://static.igem.org/peertube/streaming-playlists/hls/11f4dd5e-b4ca-4837-ae43-c08e56ce7834/3af6f12e-bb2c-460b-9a3e-1aaa78878119-master.m3u8https://video.igem.org/videos/embed/3dB9HK38s8DFB7J46tg9tf12020402021-10-31T01:15:35.508ZYES2021 Team PresentationsNOhttps://video.igem.org/w/fHa3q9nw7fj5V5EqMbnCRohttps://video.igem.org/lazy-static/thumbnails/a800f554-c742-4830-ba1e-a52599d5fef4.jpgUGM_Indonesia: Auviola: a cyanide-regulating system for gold bioleaching and was... (2021) - Team...**Title:** Auviola: a cyanide-regulating system for gold bioleaching and waste treatment towards sustainable non-mercury gold processing **Description:** The creation of a sustainable non-mercury gold processing technology has become a considerable challenge. An efficient gold extraction process with less complicated wastewater treatment to minimize the production cost is the ultimate objective of our Auviola project. Bioleaching based on the cyanide-producing bacterium will be engineered, improving the gold extraction and subsequently degrading the off-process cyanide. The Auviola project utilized an engineered Chromobacterium violaceum. To optimize and design the system, kinetic and genomic scale models were demonstrated in both the extraction process and the cyanide degradation afterward. The bioreactor was also designed as the pilot scale for implementing the engineered gold bioleaching process. In the future, this project has the potential to be implemented as a sustainable low-cost gold bioleaching system for the artisanal and small-scale gold miners to bring achievable and beneficial impacts. Moreover, we also contribute to educating the students for understanding and implementing synthetic biology. [Wiki](https://2021.igem.org/Team:UGM_Indonesia)https://static.igem.org/peertube/streaming-playlists/hls/771f0207-c0f9-4eea-af62-f59851e84448/2d1c59e6-1f62-4556-8b2f-2b84536a90f0-master.m3u8https://video.igem.org/videos/embed/fHa3q9nw7fj5V5EqMbnCRo119901342021-10-30T22:59:29.129ZGoldBioleachingCyanidationEnvironmentAuViolaYES2021 Team PresentationsNOhttps://video.igem.org/w/4zTu5ENv7KZmZp5xVerUUfhttps://video.igem.org/lazy-static/thumbnails/0ff34222-06b9-4348-b2c3-ac1f85353245.jpgCity_of_London_UK: Project Ribotox (2021) - Team Presentation [English]**Title:** Project Ribotox **Description:** Pre-eclampsia is a condition that causes high blood pressure during and after pregnancy. Currently, It is detected after symptoms have arisen by old, antiquated methods that often result in misdiagnosis, ultimately leading to preventable complications in pregnancy such as foetal growth restriction, low birth weight and life-threatening seizures and blood clots. Project Ribotox aims to spread awareness about preeclampsia and to develop a screening tool using microRNA biomarkers twice as early into pregnancy as current methods allow, by detecting two upregulated miRNAs in the serum of patients with the condition with toehold switches, and a novel method of isothermal amplification. This test will be able to take place in a single tube at a single temperature, increasing the accessibility of RNA tests worldwide. [Wiki](https://2021.igem.org/Team:City_of_London_UK)https://static.igem.org/peertube/streaming-playlists/hls/1d06b049-9213-4419-a490-93935fd55dbe/0e38c5d9-f4b1-4f70-9431-9838697c7d8d-master.m3u8https://video.igem.org/videos/embed/4zTu5ENv7KZmZp5xVerUUf11900842021-10-31T01:56:00.586ZYES2021 Team PresentationsNOhttps://video.igem.org/w/1pQP43sVgmnuad3kBRZvZPhttps://video.igem.org/lazy-static/thumbnails/57abb5ec-943b-406b-8ac0-6405eca20d3d.jpgMADRID_UCM: 4C_Fuels: Cyanobacterial Cyclic Carbon Capture (for sustainable bioF... (2021) - Team...**Title:** 4C_Fuels: Cyanobacterial Cyclic Carbon Capture (for sustainable bioFuel production) **Description:** We will use cyanobacteria as living catalysts for light-driven direct carbon dioxide conversion to valuable products, upgrading the conventional biomass-based biorefineries. To do so, we will engineer the newly discovered Synechococcus PCC11801. A robust fast-growing cyanobacteria for direct sun to chemicals production. Our goal is to test the potential of photosynthetical chemical manufacturing producing n-butanol; an ideal biofuel and comodity chemical. We are implementing an artificial n-butanol biosynthetic pathway, an synthetic pathway for enhanced carbon fixation towards acetyl-CoA as central metabollite and genetic modifications for enhanced solvent tolerance. In addition we will explore cyanobacterial encapsulation in nano-structured biohybrid materials, while performing an insight into the requirements for the industrial scale-up of photobiocatalytic technology. Likewise, we will develop tools for easing cyanobacteria genetic engineering. We will develop a software for neutral integration sites identification. Also a recombination-based system for the easy generation of unmarked mutants will be developed. [Wiki](https://2021.igem.org/Team:MADRID_UCM)https://static.igem.org/peertube/streaming-playlists/hls/0354300d-d66e-43e0-9ee0-cca8b888cbc5/1b0de7ed-4d0a-4b29-a211-8bde20a7a5ea-master.m3u8https://video.igem.org/videos/embed/1pQP43sVgmnuad3kBRZvZP12000542021-10-31T02:20:44.225ZPhotobiocatalyst4C_FuelsSUstainabilityBiomanufacturingCYanobacteriaYES2021 Team PresentationsNOhttps://video.igem.org/w/jYSq3r8h7Az24ohbn3P23vhttps://video.igem.org/lazy-static/thumbnails/855a6125-3df7-4919-9059-ba796356be69.jpgAFCM-Egypt: Deep Learning-Assisted Immunotherapy Platform for Triple-Negative Br... (2021) - Team...**Title:** Deep Learning-Assisted Immunotherapy Platform for Triple-Negative Breast Cancer (TNBC) **Description:** Immunotherapy provides new therapeutic opportunities for various cancers and infectious diseases. Herein, triple-negative breast cancer immunotherapy is achieved via circuits developed to operate logical decisions upon recognizing intracellular targets. Using DNA launching of replicons as a potent delivery system, the platform regulates the expression of the subgenomic immunotherapeutic message based on sensing intracellular mRNAs or proteins via novel protein fusion constructs. This regulation depends on a set of riboswitches to control downstream expression. To provide a safety switch for clinical applications, the system can be stopped through a small molecule inhibition. This design is also environment-responsive, as it depends on a set of toehold-like switches to sense cell-specific set of RNAs leading to feedback regulation of the delivered cargo. The platform was adapted to deliver intratumoral oncolytic and immunotherapeutic signals. It is aided by a set of deep learning models and a computational directed evolution algorithm for developing functional proteins. [Wiki](https://2021.igem.org/Team:AFCM-Egypt)https://static.igem.org/peertube/streaming-playlists/hls/99b5374f-040e-4962-8b41-b9538eb051cd/d5894cba-02c1-4b91-a972-5cfba0eed580-master.m3u8https://video.igem.org/videos/embed/jYSq3r8h7Az24ohbn3P23v111509592021-10-31T02:55:41.399ZAFCMTNBCCancerBreastEgyptYES2021 Team PresentationsNOhttps://video.igem.org/w/a6S6xn3PSF4WrosNTKy121https://video.igem.org/lazy-static/thumbnails/a721bf89-682f-4259-b66a-ce4cbfd619dc.jpgBioTec-CCM (2021) - TeamBioTec-CCM (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/49b3d6d9-8f04-4251-96fc-df08f986764a/ea0a6b70-ecce-40e7-93b9-ef3a720083ab-master.m3u8https://video.igem.org/videos/embed/a6S6xn3PSF4WrosNTKy12110160622021-10-29T20:18:54.206ZYESiGEM Design LeagueNOhttps://video.igem.org/w/1Ld6wGpQSSVjy5jH5rDf6whttps://video.igem.org/lazy-static/thumbnails/781aa134-fc7a-401c-bac3-3dedb64dd690.jpgUAM (2021) - TeamUAM (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/062c2e0d-7a76-4bdf-8bce-1adf79cf2f50/e4ef556e-c504-447b-aa14-a1b7272f9f6c-master.m3u8https://video.igem.org/videos/embed/1Ld6wGpQSSVjy5jH5rDf6w11650722021-10-29T21:13:13.598ZYESiGEM Design LeagueNOhttps://video.igem.org/w/aZybkZya5svCExWdsrxgjohttps://video.igem.org/lazy-static/thumbnails/ed15a4e6-857d-4068-995c-8a6cf25e2150.jpgiGEM 2021: High School Track Project (Trailer)The High School iGEM program is an exciting way for high school students and instructors to learn about and engage in synthetic biology. The High School division brings synthetic biology from the world of academia into local communities. The students often make the leap from learning about the central dogma to Gibson assembly in just a few months. This year, there are 94 teams in the High School track. Let’s take a look at some of their projects.https://static.igem.org/peertube/streaming-playlists/hls/50eb7933-d074-4085-a1d2-4022e03ec1ee/5cca8689-ad67-4fef-881d-c777761e5928-master.m3u8https://video.igem.org/videos/embed/aZybkZya5svCExWdsrxgjo18405552021-10-30T00:53:53.840ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/7Vwj5iPXJt3F2FySuA1Fiehttps://video.igem.org/lazy-static/thumbnails/7cc49885-3a27-42d5-85c9-10359e632e98.jpgLinkoping_Sweden: CyaSalt - A novel synthetic biology solution to the global fre... (2021) - Team...**Title:** CyaSalt - A novel synthetic biology solution to the global freshwater crisis **Description:** The world population is consistently growing and integrated agriculture is expanding consequently. As a result, the global need for freshwater is greater than ever and it continues to increase. Accordingly, the world is facing a freshwater crisis that is vastly affecting the agricultural industry in all parts of the world. CyaSalt is an innovative approach to solve this crisis. The aim of the project is to desalinate seawater in an environmentally friendly way using modified phototrophic organisms. These organisms will utilize sunlight to activate the inward-directed chloride pump, Halorhodopsin, that imports chloride ions. Sodium ions will enter via the ion channel MscL. Thereafter, the modified organisms are separated from the desalinated water by a cellulose filter. The organisms bind to the filter via a carbohydrate-binding domain on their surfaces, resulting in desalinated water free from modified bacteria. Hence, CyaSalt provides a sustainable and economically accessible freshwater source for agricultural use. [Wiki](https://2021.igem.org/Team:Linkoping_Sweden)https://static.igem.org/peertube/streaming-playlists/hls/380fee95-c373-43db-a64d-6159c9e42383/45a18e0a-abe1-4164-80de-a772fc940732-master.m3u8https://video.igem.org/videos/embed/7Vwj5iPXJt3F2FySuA1Fie12000582021-10-30T09:24:12.021ZPhototrophsDesalinationEnvironmentCyoSaltWaterScarcityYES2021 Team PresentationsNOhttps://video.igem.org/w/kQnqXi5ayDRn6BJJWgqsqwhttps://video.igem.org/lazy-static/thumbnails/d3d61c3f-110d-4344-80bb-f182ad84e9f5.jpgMSP-Maastricht: METHAGONE - Harnessing the Powers of Seaweed to Reduce Methane E... (2021) - Team...**Title:** METHAGONE - Harnessing the Powers of Seaweed to Reduce Methane Emissions in Cows **Description:** Over the last 100 years, the human population has exploded and so has the demand for food sources such as meat. To keep up with this demand, the number of cows has also skyrocketed. Cows have multiple stomachs, one of them being the rumen. Within it, there exists a microcosm of microorganisms of which the archaea, specifically the suborder, Methanobrevibacter, creates methane (CH4) by using the fermentation byproducts H2 and CO2. Methane, a greenhouse gas, has a global warming potential that is 28 times stronger per unit mass relative to CO2. To tackle this issue our team is producing a microbial feed additive for cows which will express a set of proteins, derived from different species of red seaweed, to inhibit the metabolic pathway of CH4 production by producing a compound called bromoform. [Wiki](https://2021.igem.org/Team:MSP-Maastricht)https://static.igem.org/peertube/streaming-playlists/hls/a09e8ad7-5803-4998-bdb4-249d8b0e9326/99700be9-0a5f-4b6a-b944-e178c0a47b24-master.m3u8https://video.igem.org/videos/embed/kQnqXi5ayDRn6BJJWgqsqw11080582021-10-30T09:35:45.315ZMethaneBromoformCowsGHGYES2021 Team PresentationsNOhttps://video.igem.org/w/xmhVCPpcddW1YiPxiWMkUchttps://video.igem.org/lazy-static/thumbnails/73c99ca6-f507-4162-89b0-02352bc1264b.jpgStuttgart: TardiSun - Innovative UV Protection (2021) - Team Presentation [English]**Title:** TardiSun - Innovative UV Protection **Description:** Our project TardiSun-innovative UV-Power takes advantage of the DSUP protein, which can be found in tardigrades and protects the DNA from UV-radiation. The aim of the project is to improve the life cell imaging method by using the protein within HeLa-cells. Furthermore, we like to express and isolate the protein in Escherichia coli to dissolve the protein into a liquid. In this context we want to find out if the absorbance properties are independent of the DNA protection function. The developed liquid could be used to protect other surfaces. [Wiki](https://2021.igem.org/Team:Stuttgart)https://static.igem.org/peertube/streaming-playlists/hls/fde09aa6-48b5-4204-9f8b-c0a7b57b4fc7/a14516f2-3cc0-4238-a8e6-9cf8900730a8-master.m3u8https://video.igem.org/videos/embed/xmhVCPpcddW1YiPxiWMkUc4430272021-10-30T09:58:19.406ZYES2021 Team PresentationsNOhttps://video.igem.org/w/7itWUttcWL5zapwtsFgVXChttps://video.igem.org/lazy-static/thumbnails/5422cce9-41c0-4402-9bdd-bda7a2021c6f.jpgITESO_Guadalajara (2021) - TeamITESO_Guadalajara (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/3307b2e2-e287-4e47-8b70-26cf46aa85d6/0e4e32e2-119b-40b6-86de-5574f27cf352-master.m3u8https://video.igem.org/videos/embed/7itWUttcWL5zapwtsFgVXC10760292021-10-30T15:25:38.964ZYESiGEM Design LeagueNOhttps://video.igem.org/w/c2ThfQLy8mgBrMCxKmeKXkhttps://video.igem.org/lazy-static/thumbnails/44280a82-ed1e-4406-830c-3650649b5151.jpg Yucatán (2021) - Team Yucatán (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/5957df22-94fb-4d04-a1e0-3430972eb37d/811b9776-8672-4544-a7bb-4d850fb6f906-master.m3u8https://video.igem.org/videos/embed/c2ThfQLy8mgBrMCxKmeKXk9750152021-10-30T15:50:18.151ZYESiGEM Design LeagueNOhttps://video.igem.org/w/mEciJ36jJofLbPeQHsYuqehttps://video.igem.org/lazy-static/thumbnails/8247e985-ca37-4c91-800c-fe9f0308bb99.jpgOllinSynBio (2021) - TeamOllinSynBio (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/a74c00f7-ea95-4372-b81c-b57b2b747fed/99ec9513-cef4-4a58-a5f6-043d02963e7c-master.m3u8https://video.igem.org/videos/embed/mEciJ36jJofLbPeQHsYuqe10050392021-10-30T16:14:05.245ZYESiGEM Design LeagueNOhttps://video.igem.org/w/umY5Ft4sWiCexiUMBs3FSihttps://video.igem.org/lazy-static/thumbnails/2a820317-db3e-410b-a825-80d804c9bdaf.jpgUTEC (2021) - TeamUTEC (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/e5ad519f-5621-4d1d-86ee-904c440c7ef1/71d33aa8-dd56-4f4a-9c71-063193714239-master.m3u8https://video.igem.org/videos/embed/umY5Ft4sWiCexiUMBs3FSi11000402021-10-30T17:13:18.348ZYESiGEM Design LeagueNOhttps://video.igem.org/w/shZDCPpFQgMdwXy3ZHiouvhttps://video.igem.org/lazy-static/thumbnails/ffc715d9-b566-4ffe-8ae9-8bd894d4cbac.jpgSynYaku (2021) - TeamSynyaku is an iGEM Design League from Peru, competing in the Energy, Environment and Biodiversity track in the iGEM Design League 2021https://static.igem.org/peertube/streaming-playlists/hls/d4ed0869-9e08-4c56-9f7a-f327a4acd3e5/0ea6cc0e-0a74-4f28-8497-c8b699cba587-master.m3u8https://video.igem.org/videos/embed/shZDCPpFQgMdwXy3ZHiouv7060352021-10-30T17:16:55.861ZYESiGEM Design LeagueNOhttps://video.igem.org/w/agMwDbeTq4J7WRr5ovLR5shttps://video.igem.org/lazy-static/thumbnails/63b4d2eb-54d1-4a08-abb1-adbb63741b88.jpgIktan Kaan'Ek (2021) - TeamIktan Kaan'Ek (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/4b167659-1b7c-4eca-bf13-1d21d8d15ed6/0ab926ce-ae4a-4da1-9a08-939d83875722-master.m3u8https://video.igem.org/videos/embed/agMwDbeTq4J7WRr5ovLR5s11960272021-10-31T13:03:43.281ZYESiGEM Design LeagueNOhttps://video.igem.org/w/fPwiC2yzjNQUnCCAMomF3Xhttps://video.igem.org/lazy-static/thumbnails/d789a567-1ea9-4145-ad26-f931cac99916.jpgCrete: A Plant-based Edible Vaccine Expressing A Chimeric Tripartite Spike-s1 Pr... (2021) - Team...**Title:** A Plant-based Edible Vaccine Expressing A Chimeric Tripartite Spike-s1 Protein Of SARS-CoV-2 for COVID-19 Control **Description:** SARS-CoV-2, the causal agent of COVID-19 pandemic, caused over 200,000 deaths globally in the first 4 months. Overcoming this pandemic is a great challenge for humanity and it is still a main concern for the scientific communities worldwide. We decided to develop an edible vaccine for SARS-CoV-2 aiming to be a more accessible and easily distributed alternative to conventional vaccines. To create this vaccine, we designed a synthetic gene that expresses specific SARS-CoV-2 antigens into plant cells. Our synthetic construct codes for a chimeric tripartite Spike S1 protein that covers three distinct mutants of SARS-CoV-2. Using the agroinfiltration method we produce high levels of the chimeric S1-protein at the lettuce cells membrane. This antigen protein will specifically activate the Mucosal Immunity in lab animals upon consuming of the plant tissue. This is the first step of our vaccine development that will be followed by the immunization of lab mice. [Wiki](https://2021.igem.org/Team:Crete)https://static.igem.org/peertube/streaming-playlists/hls/780292e5-bf08-48a1-aead-63f79344bd47/3b7cdf14-2ca7-45c4-acd3-302b9c9d7ceb-master.m3u8https://video.igem.org/videos/embed/fPwiC2yzjNQUnCCAMomF3X10820882021-10-31T10:34:25.636ZEdibleVaccinePandemicSARS-CoV-2YES2021 Team PresentationsNOhttps://video.igem.org/w/t7qq2J196odNnrv92cufQFhttps://video.igem.org/lazy-static/thumbnails/723c5f82-83bb-4350-a8d5-e48e70c33775.jpgigroBio (2021) - TeamigroBio (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/db8c4096-1651-4e64-9a0f-1f0f8f35da2f/eed40f1c-b728-4527-9464-7508a164ae8e-master.m3u8https://video.igem.org/videos/embed/t7qq2J196odNnrv92cufQF9400152021-11-01T13:08:03.285ZYESiGEM Design LeagueNOhttps://video.igem.org/w/14nKZ6jy989i4MpGuoNb1Thttps://video.igem.org/lazy-static/thumbnails/94ce2760-45b2-49cb-9166-634cf62c2ab9.jpgPanama-Uni (2021) - TeamPanama-Uni (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/0078a3ef-4a91-4fcb-97f9-7ccd733cce2b/edf97e12-f06b-496f-9504-58f028999e6d-master.m3u8https://video.igem.org/videos/embed/14nKZ6jy989i4MpGuoNb1T10890492021-11-01T13:19:41.690ZYESiGEM Design LeagueNOhttps://video.igem.org/w/mppZJNqiPjagPmFYcuSKgxhttps://video.igem.org/lazy-static/thumbnails/ce3fea51-5841-44d9-a137-f3916f8c705e.jpgFireblighters (2021) - TeamFireblighters (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/a53baaeb-2947-492b-8c8e-b8d4fe2d6581/492829f9-d6c6-47e5-a77d-f36b336f9ecf-master.m3u8https://video.igem.org/videos/embed/mppZJNqiPjagPmFYcuSKgx11430332021-11-01T13:25:08.095ZYESiGEM Design LeagueNOhttps://video.igem.org/w/35qbg6AZwFWzjkc1RAg7FPhttps://video.igem.org/lazy-static/thumbnails/2ffea3d5-e83e-44d9-9f8e-17fdeeddd260.jpgISPanama (2021) - TeamISPanama (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/10d026e5-dc97-4799-b70b-3ac251a21e75/40b55bc9-3208-4da9-af8f-da9321bf08fd-master.m3u8https://video.igem.org/videos/embed/35qbg6AZwFWzjkc1RAg7FP11740292021-11-01T13:31:41.089ZYESiGEM Design LeagueNOhttps://video.igem.org/w/sFW7xi917mTXVVkoZF9D9dhttps://video.igem.org/lazy-static/thumbnails/cc05ee52-fd97-4bcf-9806-5c882fd7b76d.jpg Mikuytec (2021) - Team Mikuytec (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/d820f5d9-fef3-43e4-afb6-c5207746c360/5550d3c7-f081-4062-8905-d3618045c79a-master.m3u8https://video.igem.org/videos/embed/sFW7xi917mTXVVkoZF9D9d119601472021-11-01T14:16:53.939ZYESiGEM Design LeagueNOhttps://video.igem.org/w/viKPHASUEHuotj3F7AXzUrhttps://video.igem.org/lazy-static/thumbnails/2ba6020d-7e80-4b6d-ad38-cf087588ae06.jpgCO2 Snatchers (2021) - TeamCO2 Snatchers (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/ed53ac03-f1be-4ca9-8735-a244686adabd/421f4dc0-540b-46ad-9378-c2e791e63d0e-master.m3u8https://video.igem.org/videos/embed/viKPHASUEHuotj3F7AXzUr10310372021-11-01T14:44:15.100ZYESiGEM Design LeagueNOhttps://video.igem.org/w/2J14py5FKcwukCc96jGrczhttps://video.igem.org/lazy-static/thumbnails/c245e257-13d4-41de-b38f-54748d3db9bb.jpgDesign League Giant Jamboree WelcomeDesign League Giant Jamboree Welcomehttps://static.igem.org/peertube/streaming-playlists/hls/0df669c6-e1e5-451c-9a21-225d6d34c023/363d2140-4efc-4de2-8fb0-31250ac07943-master.m3u8https://video.igem.org/videos/embed/2J14py5FKcwukCc96jGrcz19901522021-11-01T19:40:54.582ZYESiGEM Design LeagueNOhttps://video.igem.org/w/ji8V1J4qyLt1J4qfUTuTwGhttps://video.igem.org/lazy-static/thumbnails/b0918c6d-6b03-4dac-b10f-f912dea22330.jpgWhy Design League?Why Design League?https://static.igem.org/peertube/streaming-playlists/hls/94290464-00e9-4947-bd3b-518725bcd2b0/6ebf7048-5054-4f5e-b4b9-201e1c4e180d-master.m3u8https://video.igem.org/videos/embed/ji8V1J4qyLt1J4qfUTuTwG2580172021-11-01T19:59:50.849ZYESiGEM Design LeagueNOhttps://video.igem.org/w/nTXMBAf87ES7PKXDHKQA5Xhttps://video.igem.org/lazy-static/thumbnails/410938e8-35c0-4e3a-b518-3af96b90609c.jpgWhy iGEM Academy?Why iGEM Academy?https://static.igem.org/peertube/streaming-playlists/hls/b1513947-6c75-46c8-bcc9-ac7ed2f17177/6222f527-d99e-4842-b330-ab9de6fc808f-master.m3u8https://video.igem.org/videos/embed/nTXMBAf87ES7PKXDHKQA5X3580492021-11-01T20:00:03.663ZYESiGEM Design LeagueNOhttps://video.igem.org/w/fuH64XZLVr5UbGVPJ9Gcx6https://video.igem.org/lazy-static/thumbnails/f1b9874d-8286-49d2-a92f-85acddc38520.jpgWhat would you do if you were a finalist?What would you do if you were a finalist?https://static.igem.org/peertube/streaming-playlists/hls/7562167a-1f6c-4427-a26b-ea165f6140d7/dcd57bc9-dc62-477e-8034-b57c8dc1adaf-master.m3u8https://video.igem.org/videos/embed/fuH64XZLVr5UbGVPJ9Gcx6543042021-11-01T20:03:45.673ZYESiGEM Design LeagueNOhttps://video.igem.org/w/ijXxH2qqe1eZk59hDiiK6Rhttps://video.igem.org/lazy-static/thumbnails/356eea6b-42c7-4c2f-b233-8a2de0ab31ed.jpgArarinhas-UFF (2021) - TeamArarinhas-UFF (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/8c50fa18-804b-4143-8192-a05a41390737/e8b965f3-e275-4cbe-8702-dc86c969416b-master.m3u8https://video.igem.org/videos/embed/ijXxH2qqe1eZk59hDiiK6R10340282021-11-01T20:54:13.448ZYESiGEM Design LeagueNOhttps://video.igem.org/w/kjm4j7koi5aPTgbqb9nmd5https://video.igem.org/lazy-static/thumbnails/807f1214-1e96-414a-a214-c350d63fe576.jpgCNPEM.Brazil (2021) - TeamCNPEM.Brazil (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/9c6d620e-586b-490e-a5ac-2b5a03396f94/25e9c483-cd76-402a-b73d-a7f29af14b99-master.m3u8https://video.igem.org/videos/embed/kjm4j7koi5aPTgbqb9nmd511890262021-11-01T21:51:01.950ZYESiGEM Design LeagueNOhttps://video.igem.org/w/aRzm4UHWR8NmAsocF5M2Zphttps://video.igem.org/lazy-static/thumbnails/789b1a75-6a12-4e10-855f-8b9e182b0996.jpgBiotechEC (2021) - TeamBiotechEC (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/4fce3e2c-79d3-475b-a165-81780271dc8d/2f977437-8488-4872-8677-96a32d11dc65-master.m3u8https://video.igem.org/videos/embed/aRzm4UHWR8NmAsocF5M2Zp9110392021-11-01T22:05:24.808ZYESiGEM Design LeagueNOhttps://video.igem.org/w/wVfkM7pYmuL7xcUet7pp69https://video.igem.org/lazy-static/thumbnails/750049bd-f357-46ca-a0e7-83ff53e31152.jpgIXORA (2021) - TeamIXORA (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/fa616ae5-5fd8-45ef-a02e-11dbe1a51b7e/182aaa7b-611a-478e-b186-214edc150d79-master.m3u8https://video.igem.org/videos/embed/wVfkM7pYmuL7xcUet7pp698700182021-11-02T13:22:14.655ZYESiGEM Design LeagueNOhttps://video.igem.org/w/hgSE8KQRuom4SHQAhJujx3https://video.igem.org/lazy-static/thumbnails/88b48699-058e-492c-a3bd-458abe9ae969.jpgFrom Research to Science Journalism with Rachel Bernstein (Careers in SciComm)Being a Journalist and being a scientist have a lot in common. Both do research to understand a phenomenon and get to some foundational triúth, which we can share with the world.” Rachel Bernstein is a scientist, editor, and writer working at the AAAS. She manages Science Careers, a publication of Science magazine that explores career issues and offers advice for scientists regarding career choices and science communication. She didn’t always plan to become a journalist though. Writing was more of a fun past-time activity than an actual career option for Rachel until she rediscovered the joy of writing when she got involved with the Berkeley Science review magazine during grad school. In this video, she explains her path of realizing how she can combine her science interests with her passion for writing. She gives advice regarding how to find your style and niche in science communication and shares her experience as both a freelance writer and as an editor at PLOS One and Science Careers at AAAS. She elaborates on her biggest takeaways regarding starting a non-academic/non-research-based science career and which forms of media will be most important for science communication in the upcoming years. Host: After iGEM Science Communication Network Disclaimer: This workshop isn’t a part of iGEM Competition, and is not directed towards guiding you for medal and award eligibility. Any opinions expressed in this workshop are not reflective of any institution(s) with which we may be affiliated (except for the After iGEM Program). Hashtags (idk if this a thing on the Video Universe?): #SciCommCareers #SciComm #iGEMSciCommNetwork #AfteriGEM #VideoProduction https://static.igem.org/peertube/streaming-playlists/hls/83c99809-2a49-4527-b2d1-39771baae410/bff53cb2-808c-46c5-b81c-3e9cb3c96393-master.m3u8https://video.igem.org/videos/embed/hgSE8KQRuom4SHQAhJujx321470382021-11-01T23:43:10.325ZYESiGEM CommunityNOhttps://video.igem.org/w/rZBcQeBjB7yvMhsQCk3nD3https://video.igem.org/lazy-static/thumbnails/9bdab277-b6e1-4755-97da-95ebc9a1f278.jpgiGEM Commentators 2021 - Biodiversity ConservationEvery year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. The guest in this episode is Maarten Lubbers from the Netherlands. If you are interested in the projects we quickly discussed, you can check their full presentation video here: RUM-UPRM - https://video.igem.org/w/kxh99mCueoNEEqQ86Z1es7 USP-Brazil - https://video.igem.org/w/79LGghaFFZtTa9imVwmjeS GreatBay_United - https://video.igem.org/w/dsdB2doksvt7rLVKcUKEQa Lethbridge_HS - https://video.igem.org/w/ujK2AvAKcb58oMBA68s2JK Bielefeld-CeBiTec - https://video.igem.org/w/bsbckZoJNUbnwYgMJV69s2 https://static.igem.org/peertube/streaming-playlists/hls/d27f8e7e-c1b1-4992-8278-2d1c55ae4658/933083f5-7cc2-412c-857b-fa1ce5c95f6a-master.m3u8https://video.igem.org/videos/embed/rZBcQeBjB7yvMhsQCk3nD37020582021-11-02T02:03:43.636ZYESiGEM TVNOhttps://video.igem.org/w/p8wfcGaDbyozaYRcceEUSuhttps://video.igem.org/lazy-static/thumbnails/64da3e79-58f9-4e52-8c7d-9726ed404575.jpgiGEM Commentators 2021 - DNA Data Storage Every year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. The guest in this episode is Gourav Saha from India. If you are interested in the projects we quickly discussed, you can check their full presentation video here: Aachen – https://video.igem.org/w/ibWRLxaQjmzfW8xFw1vYW3 UNESP_Brazil - https://video.igem.org/w/bKrhpmnGhMKrmZsTubqWAphttps://static.igem.org/peertube/streaming-playlists/hls/bb4f08dd-1d9d-4081-9205-c57f1b4f4da0/6230c3da-294d-485f-8f03-ade911d958a0-master.m3u8https://video.igem.org/videos/embed/p8wfcGaDbyozaYRcceEUSu7830232021-11-02T02:15:00.793ZYESiGEM TVNOhttps://video.igem.org/w/ggJ5Fyhy44bkj9LKk3TESUhttps://video.igem.org/lazy-static/thumbnails/f4407714-adf8-4843-94f0-34627ca68078.jpgiGEM Commentators 2021 - Accessibility to Synthetic BiologyEvery year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. In this episode we have two very special guests, Annika Shi from China and Cibele Zolnier from Brazil. If you are interested in the projects we quickly discussed, you can check their full presentation video here: WLC-Milwaukee - https://video.igem.org/w/kW6s5HFMJK9Rf7RLUZDnkS Open_Science_Global - https://video.igem.org/w/2JKMmLdaj39BSzUekZeVez Sydney_Australia - https://video.igem.org/w/8rnCAq45EUn5DTNe3LNyPr UPenn - https://video.igem.org/w/k9zyijtZw8zjnmiUV2MaSQ https://static.igem.org/peertube/streaming-playlists/hls/7bab2b6c-0f8d-4169-b7a2-9e9cb0504c98/a8d3a575-da67-4992-98aa-f0b8de19e699-master.m3u8https://video.igem.org/videos/embed/ggJ5Fyhy44bkj9LKk3TESU10640692021-11-02T02:24:34.490ZYESiGEM TVNOhttps://video.igem.org/w/2MMsia1Hj93e8i2rwyxDCUhttps://video.igem.org/lazy-static/thumbnails/1f7252e0-0011-4570-b091-ced3d0d9f44a.jpgCAOS (2021) - TeamCAOS (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/0e7d9eb4-e887-41a5-8e9d-b168495935e8/9a4f0449-823b-4579-9404-3fbab289a3d0-master.m3u8https://video.igem.org/videos/embed/2MMsia1Hj93e8i2rwyxDCU11990352021-11-02T14:52:52.093ZYESiGEM Design LeagueNOhttps://video.igem.org/w/3u2xud3ZYdeyZAhetSK8Cwhttps://video.igem.org/lazy-static/thumbnails/44729511-ff8e-469c-82dd-21233475c7c3.jpgUnB-Embrapa (2021) - TeamUnB-Embrapa (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/141c0dbf-af5f-4121-8e30-41969c2e8b3a/6b1139fe-60a4-40c6-b40a-1f2496e8a5e2-master.m3u8https://video.igem.org/videos/embed/3u2xud3ZYdeyZAhetSK8Cw11990422021-11-02T15:22:06.635ZYESiGEM Design LeagueNOhttps://video.igem.org/w/9utHZDLYvt5oTzhVMH4Dn3https://video.igem.org/lazy-static/thumbnails/2641b64c-9e42-422d-8846-3db4056d29c9.jpgSynbio Ikiam (2021) - TeamSynbio Ikiam (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/44c30537-d385-4c82-a3bc-cff7c3b02860/5976ce8f-e449-4ae7-a23c-23f9908ea7aa-master.m3u8https://video.igem.org/videos/embed/9utHZDLYvt5oTzhVMH4Dn39120132021-11-02T15:48:24.775ZYESiGEM Design LeagueNOhttps://video.igem.org/w/sMiUfa3itpL2QUbJXTCUvahttps://video.igem.org/lazy-static/thumbnails/bb4f040f-f21c-407b-ac63-1623f0a8099c.jpgSynthetic Biobots (2021) - TeamSynthetic Biobots (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/d8e11b46-8682-47da-9678-50fa4aa2769b/53c86aa9-07a7-4ff8-ae67-3a8dc4fc7529-master.m3u8https://video.igem.org/videos/embed/sMiUfa3itpL2QUbJXTCUva9040502021-11-02T16:23:29.825ZYESiGEM Design LeagueNOhttps://video.igem.org/w/wYp5aiT28g9QNjoNckSM4qhttps://video.igem.org/lazy-static/thumbnails/c036b7ea-585c-4aa2-b7f5-f219481319c7.jpgWhat did you enjoy the most?What did you enjoy the most?https://static.igem.org/peertube/streaming-playlists/hls/fad20785-7336-4baf-b6ad-b05701e4267a/694ce807-d995-40d4-8f38-ac5c04d545c1-master.m3u8https://video.igem.org/videos/embed/wYp5aiT28g9QNjoNckSM4q308002021-11-02T17:39:27.092ZYESiGEM Design LeagueNOhttps://video.igem.org/w/2ntnMRHLcW8srsLAx8StLMhttps://video.igem.org/lazy-static/thumbnails/869578d3-33e5-4d71-aa0f-5dd7a87d6a3f.jpgWhy Synthetic Biology?Why Synthetic Biology?https://static.igem.org/peertube/streaming-playlists/hls/0b18a0f2-cf6f-48ba-901c-d5077411a911/56d13b79-0ec9-47e5-9e12-dab5e22d7a3c-master.m3u8https://video.igem.org/videos/embed/2ntnMRHLcW8srsLAx8StLM312022021-11-02T17:43:09.554ZYESiGEM Design LeagueNOhttps://video.igem.org/w/9pURho5HQCsk3VZ64ZLYcghttps://video.igem.org/lazy-static/thumbnails/892d01ea-6427-4847-b4ea-ea0b9dcdcace.jpgWhat is your Synbio Dream for Latin America?What is your Synbio Dream for Latin America?https://static.igem.org/peertube/streaming-playlists/hls/441fc928-69e2-42e2-b79a-ce32c092c57d/b236a600-07d4-49c1-b59d-a01d41a5268d-master.m3u8https://video.igem.org/videos/embed/9pURho5HQCsk3VZ64ZLYcg394002021-11-02T17:47:42.848ZYESiGEM Design LeagueNOhttps://video.igem.org/w/xaPcGkMuRNJTwLSopymdJRhttps://video.igem.org/lazy-static/thumbnails/4c80c77c-96b5-4cba-baff-1a9cd7d976ab.jpgUTFPR-PG (UTPrimers) (2021) - TeamUTFPR-PG (UTPrimers) (2021) - Teamhttps://static.igem.org/peertube/streaming-playlists/hls/fc6a14d9-23ce-4bb5-ab76-5c231b9b7065/b0645133-4a90-4b54-ae38-2d43462193c3-master.m3u8https://video.igem.org/videos/embed/xaPcGkMuRNJTwLSopymdJR11940562021-11-02T19:44:33.173ZYESiGEM Design LeagueNOhttps://video.igem.org/w/nUWv8dK611PmZnnQ4WUWpphttps://video.igem.org/lazy-static/thumbnails/c6a66e72-5112-42fc-a325-02df901c0414.jpgP(d)PANA (2021) - TeamP(d)PANA is a team from Venezuela, competing in the Health, Diagnostics and Treatments trackhttps://static.igem.org/peertube/streaming-playlists/hls/b1742d11-01a7-41e6-9d5a-32ac86b52cc5/c026f4cd-040e-4e19-861a-49fcbde26c11-master.m3u8https://video.igem.org/videos/embed/nUWv8dK611PmZnnQ4WUWpp6870182021-11-03T04:35:22.671ZYESiGEM Design LeagueNOhttps://video.igem.org/w/8joY9B6LCpmTXyZKmECQnjhttps://video.igem.org/lazy-static/thumbnails/003ac964-c389-4ee8-b52f-d0aed32178d2.jpgSciencopic_CONCyTEP (2021) - TeamSciencopic_CONCYTEP is a team from Puebla, Mexico competing in the environmental trackhttps://static.igem.org/peertube/streaming-playlists/hls/3b418357-d959-4b8e-886d-e4fbc6b47f54/80c842a5-bb75-494d-837f-f85fb72c3d0d-master.m3u8https://video.igem.org/videos/embed/8joY9B6LCpmTXyZKmECQnj11940542021-11-03T04:35:20.286ZYESiGEM Design LeagueNOhttps://video.igem.org/w/kS5kVDLBKnNMkVX2FBvQyfhttps://video.igem.org/lazy-static/thumbnails/7be480ca-3edc-4c88-b45b-fb708eae787a.jpgAfter iGEM: A Journey of Growth and PassionsAfter iGEM: A Journey of Growth and Passionshttps://static.igem.org/peertube/streaming-playlists/hls/a0db7ff5-6615-4dcd-b964-9f45d133c7e6/6ca3195a-5c40-4cfc-bcf6-15f44e26fa6e-master.m3u8https://video.igem.org/videos/embed/kS5kVDLBKnNMkVX2FBvQyf23201922021-11-03T15:10:08.905ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/o2SPbaZmxv7m3mp4KRyRoqhttps://video.igem.org/lazy-static/thumbnails/5759afde-999e-4e5a-be6e-241e038b6a72.jpgLead the SynBio Future with After iGEM : After iGEM RecruitmentLead the SynBio Future with After iGEM : After iGEM Recruitmenthttps://static.igem.org/peertube/streaming-playlists/hls/b26c1bf0-a78b-4732-8a4d-09cf7adbac28/edfd9d72-06a7-450a-ac7f-24ce7d6f31d9-master.m3u8https://video.igem.org/videos/embed/o2SPbaZmxv7m3mp4KRyRoq13901622021-11-03T15:14:33.922ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/wKCbcqHHaLqbgSnuCDL35nhttps://video.igem.org/lazy-static/thumbnails/a6bb5b74-c0d8-4df1-b844-18fcdf33024c.jpgGenomic Immunology and Engineering Immunity (GenScript)Genomic Immunology and Engineering Immunity (GenScript)https://static.igem.org/peertube/streaming-playlists/hls/f9096fa0-a461-44a7-82c5-8398e6d6b375/5be08445-a77d-4cca-aa4a-bffef626c5e1-master.m3u8https://video.igem.org/videos/embed/wKCbcqHHaLqbgSnuCDL35n17900192021-11-04T13:07:00.845ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/m7PjE62bzddtDdy9qqMMCNhttps://video.igem.org/lazy-static/thumbnails/df7abf1d-ccf3-437f-afec-2342aca66a10.jpgEduHall: Pursuit of federating a hub for SynBio educational materialsEduHall: Pursuit of federating a hub for SynBio educational materialshttps://static.igem.org/peertube/streaming-playlists/hls/a2ea6619-ebdb-4b78-81cc-adc71499cd32/29bffab7-67db-4ca6-8d13-57e337c911fa-master.m3u8https://video.igem.org/videos/embed/m7PjE62bzddtDdy9qqMMCN281032021-11-05T13:01:18.579ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/43HEoNT6WCw4KCr53QeQH7https://video.igem.org/lazy-static/thumbnails/17e9184c-e4f4-49cd-a3d0-6661a17e63c4.jpgIndian Leagues - Envisioning SynBio paradigms in IndiaIndian Leagues - Envisioning SynBio paradigms in Indiahttps://static.igem.org/peertube/streaming-playlists/hls/18ac941f-d0bb-49f2-9f0b-a8e304e0cfd8/712773b3-c90d-4f13-8015-0afa0a1db05f-master.m3u8https://video.igem.org/videos/embed/43HEoNT6WCw4KCr53QeQH724803852021-11-05T13:13:47.033ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/j2atqUa27SZSSENB1xt51phttps://video.igem.org/lazy-static/thumbnails/63b350ce-21cd-4f88-9031-804857ffee6f.jpgFinding your career path: how to know if Industry is right for youFinding your career path: how to know if Industry is right for youhttps://static.igem.org/peertube/streaming-playlists/hls/91ee13d9-e43f-48fc-b2d8-31bcda58b38f/6ada6604-522f-4e9c-83e9-b62a91685f90-master.m3u8https://video.igem.org/videos/embed/j2atqUa27SZSSENB1xt51p212022021-11-05T13:44:08.575ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/hHfbdifss3LFkepiKZTgG4https://video.igem.org/lazy-static/thumbnails/3c29ad9e-db8c-4f90-8ee0-25f32c58282b.jpgOpen Science and Synthetic BiologyOpen Science and Synthetic Biologyhttps://static.igem.org/peertube/streaming-playlists/hls/8754730e-b203-40e6-927a-62963c180157/8fc6566f-2efd-4a43-b1e2-17caffc7bc61-master.m3u8https://video.igem.org/videos/embed/hHfbdifss3LFkepiKZTgG41700112021-11-05T14:06:37.274ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/p6f16c23afdrfcZ1QeZmxGhttps://video.igem.org/lazy-static/thumbnails/391d70a8-2ba0-4883-8ec2-328084b0aa11.jpgIntroducing ORIgin Project: A database for multilingual synbio contentIntroducing ORIgin Project: A database for multilingual synbio contenthttps://static.igem.org/peertube/streaming-playlists/hls/bafd896a-e0db-49fd-8346-d652db698a36/db4457f5-9fba-4dfa-8cdd-201013e43cc4-master.m3u8https://video.igem.org/videos/embed/p6f16c23afdrfcZ1QeZmxG88022021-11-05T14:24:06.413ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/8LzeAcn4kvgusGZtTehuByhttps://video.igem.org/lazy-static/thumbnails/0d40a9f2-8adf-4d29-a203-32c8f9d5a71d.jpgTranslating our way to a common languageTranslating our way to a common languagehttps://static.igem.org/peertube/streaming-playlists/hls/3ee92d88-b096-4343-b040-2a70a3ba566e/7cc03227-3293-40be-856b-3726b28798b6-master.m3u8https://video.igem.org/videos/embed/8LzeAcn4kvgusGZtTehuBy119032021-11-05T14:38:54.351ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/awQB33ZBwDPG8L468Me9ADhttps://video.igem.org/lazy-static/thumbnails/8b0999e6-91e2-4ccc-94a4-3bb99ecca4f1.jpgSynbio Alliance: Associations Assembled!Synbio Alliance: Associations Assembled!https://static.igem.org/peertube/streaming-playlists/hls/4d3083ac-c4cd-4b9e-b074-ae65d69b10f1/c010aa30-8b77-4292-ae12-e7a072d6dd5c-master.m3u8https://video.igem.org/videos/embed/awQB33ZBwDPG8L468Me9AD213062021-11-05T14:40:19.550ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/4dgJNCpsdNZzZioRCHAyCEhttps://video.igem.org/lazy-static/thumbnails/33b0cf41-d575-4b4e-b651-d55a9a84617f.jpgA story of iGEM MentorshipA story of iGEM Mentorshiphttps://static.igem.org/peertube/streaming-playlists/hls/1a020a44-67b2-40a8-b4ee-80d872f6686e/7939472d-c5c2-4ffe-9400-ba97ee54053e-master.m3u8https://video.igem.org/videos/embed/4dgJNCpsdNZzZioRCHAyCE970172021-11-05T14:40:53.514ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/fZwPvR6azHfAnMtk2rBpa2https://video.igem.org/lazy-static/thumbnails/04ce0fdb-90f0-45ce-a5de-4724c133dc2d.jpgTime to start your journey in science communicationTime to start your journey in science communicationhttps://static.igem.org/peertube/streaming-playlists/hls/79685442-fdf8-4f21-96e0-8201425b892f/da2e2dc5-f1fa-4759-8d18-b3fe746d8f89-master.m3u8https://video.igem.org/videos/embed/fZwPvR6azHfAnMtk2rBpa2267082021-11-05T14:42:07.174ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/hmNeV8XPTtaGFUsFMni9wBhttps://video.igem.org/lazy-static/thumbnails/a2a1cf7e-b116-4bdb-9ca5-039d19c2f259.jpg2021 Ambassador Experience: Asia2021 Ambassador Experience: Asiahttps://static.igem.org/peertube/streaming-playlists/hls/8479971f-f76a-4bfc-9e7f-caf6fc55f2e7/5528451f-3be3-43c0-8d06-ec92b96778f2-master.m3u8https://video.igem.org/videos/embed/hmNeV8XPTtaGFUsFMni9wB150022021-11-05T14:49:36.178ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/mHSeBiJTDRdobWVaTMrLLbhttps://video.igem.org/lazy-static/thumbnails/a66d073f-c5e6-4327-8a67-864fc75c9f10.jpg2021 Ambassador Experience: Keeping up with the European Ambassadors2021 Ambassador Experience: Keeping up with the European Ambassadorshttps://static.igem.org/peertube/streaming-playlists/hls/a7cf39d8-ac24-4a44-972c-1ac97fd31b8a/892fe8fb-e564-45f3-8c50-cb77ff799631-master.m3u8https://video.igem.org/videos/embed/mHSeBiJTDRdobWVaTMrLLb307032021-11-05T14:53:14.705ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/7qPCfh8ybN4X3Sv1ze9Pcghttps://video.igem.org/lazy-static/thumbnails/ebc40f8b-acff-4791-b113-9ac583161d9a.jpg2021 Ambassador Experience: LATAM2021 Ambassador Experience: LATAMhttps://static.igem.org/peertube/streaming-playlists/hls/340e0847-fb53-44cd-a893-255f7644fb59/ed7832f0-da4a-4c4b-8f64-f900c5e0bde7-master.m3u8https://video.igem.org/videos/embed/7qPCfh8ybN4X3Sv1ze9Pcg158042021-11-05T14:59:43.857ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/mXcrPiPxuLNJvp1r6jqgQghttps://video.igem.org/lazy-static/thumbnails/73665f3b-26c3-496b-b9de-0be5a93674aa.jpg2021 Ambassador Experience: North America2021 Ambassador Experience: North Americahttps://static.igem.org/peertube/streaming-playlists/hls/a9abbbdd-0aac-4ca9-be41-f5f32165184b/73cf38bb-e9bb-4553-bcbe-c51e21ab1a52-master.m3u8https://video.igem.org/videos/embed/mXcrPiPxuLNJvp1r6jqgQg180012021-11-05T15:15:42.468ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/vBgi1S167HCnznJEuRuzCihttps://video.igem.org/lazy-static/thumbnails/afed2a2a-850f-4392-a5b6-26ae0e9f751d.jpgThe Phoenix Project: Giving New Life to iGEM projects Beyond the CompetitionThe Phoenix Project: Giving New Life to iGEM projects Beyond the Competitionhttps://static.igem.org/peertube/streaming-playlists/hls/efc57a5b-6bdf-4694-a8ea-f07c531b4d4d/dc4fd430-f70f-4699-87bd-de46c82c958f-master.m3u8https://video.igem.org/videos/embed/vBgi1S167HCnznJEuRuzCi199022021-11-05T15:26:04.657ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/evd5sbhdoK6mXJcTvmuNPYhttps://video.igem.org/lazy-static/thumbnails/7a2347e6-e03d-4459-8b9b-158497dd741c.jpgHuman Practices in the real worldHuman Practices in the real worldhttps://static.igem.org/peertube/streaming-playlists/hls/6d5ad081-15f2-4033-af47-69eaccf2f656/7c6a8390-d7a7-4ba7-9fbc-8a9d2b159c69-master.m3u8https://video.igem.org/videos/embed/evd5sbhdoK6mXJcTvmuNPY244092021-11-05T15:45:06.003ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/7RyBi5yZqE52QF9p7LzGm1https://video.igem.org/lazy-static/thumbnails/fbb5ed9e-149e-44fa-9dcf-0e4d7a1f1d72.jpgiGEM Engineering Committee: Overview & RecruitmentiGEM Engineering Committee: Overview & Recruitmenthttps://static.igem.org/peertube/streaming-playlists/hls/37825f56-1aa8-423c-aefd-1480d2676090/38269006-123b-4182-b9e2-42bd4294eb78-master.m3u8https://video.igem.org/videos/embed/7RyBi5yZqE52QF9p7LzGm11500432021-11-05T15:49:38.886ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/m2A8iDQjHLyLuivkVZoxbvhttps://video.igem.org/lazy-static/thumbnails/a51af567-1d8c-4b9a-b015-6e75f0a22aff.jpgiGEM Commentators 2021 - Antibiotic ResistanceEvery year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. The guest in this episode is Erikan Baluku from Uganda. If you are interested in the projects we quickly discussed, you can check their full presentation video here: UPF_Barcelona - https://video.igem.org/w/cz7vC84ujokCkQog2Tcjan Bulgaria - https://video.igem.org/w/gFJaFaHrXwZ3fdPGo61VwD Think_Edu_China - https://video.igem.org/w/5BtLpbGPjpcYbQPiEeM29a Tuebingen- https://video.igem.org/w/i5cQmoeWh2VVHvK6stmZsQ Warwick - https://video.igem.org/w/aUFGo6viqqMYtRsczUoTDahttps://static.igem.org/peertube/streaming-playlists/hls/a22f8c3e-4ecf-4919-bb2d-b96c96a3fc1d/0a81cc0a-89c0-4f92-a83c-51bd5dc45109-master.m3u8https://video.igem.org/videos/embed/m2A8iDQjHLyLuivkVZoxbv9450762021-11-05T13:23:03.622ZYESiGEM TVNOhttps://video.igem.org/w/km8RGJx7p2xiHvpwKSEUpBhttps://video.igem.org/lazy-static/thumbnails/9e7098b6-c614-4cb7-bfff-13aff545496f.jpgiGEM Commentators 2021 - BioremediationEvery year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. The guest in this episode is Tejas Borkar from India. If you are interested in the projects we quickly discussed, you can check their full presentation video here: FDR-HB_Peru - https://video.igem.org/w/wH5ZqhY7uPfYgSSgkBGWAz Stony_Brook - https://video.igem.org/w/1MtYXWRWzmu64dPa5qAm4w NU_Kazakhstan - https://video.igem.org/w/bKcNeReEgPsFbWkvcQL4Z1 USAFA - https://video.igem.org/w/ke6r1FFbGZXJJHcv8ejBmihttps://static.igem.org/peertube/streaming-playlists/hls/9cad5a19-5078-4a9b-99e2-298361b86199/7d111cff-d91a-4421-af33-3ba7735ac6ba-master.m3u8https://video.igem.org/videos/embed/km8RGJx7p2xiHvpwKSEUpB6530462021-11-05T13:35:05.297ZYESiGEM TVNOhttps://video.igem.org/w/sWkkMBrViCLA7VuUDHMtY2https://video.igem.org/lazy-static/thumbnails/3986dec3-5309-4097-9b68-6c5579a2a339.jpgiGEM Commentators 2021 - BiosensorsEvery year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. The guest in this episode is Sahil Sood from the United States. If you are interested in the projects we quickly discussed, you can check their full presentation video here: TUDelft - https://video.igem.org/w/qKv8TzYsHSF3b74hYcmwGa ABSI_Kenya - https://video.igem.org/w/3dB9HK38s8DFB7J46tg9tf HKUST - https://video.igem.org/w/43TutM1rpCfS2KmAMscMnv Lubbock_TTU - https://video.igem.org/w/uRFCQeQyua1GpZUTKgDfNM Missouri_Miners - https://video.igem.org/w/gEW7zc6bB3rFg56gjP9Q8Zhttps://static.igem.org/peertube/streaming-playlists/hls/da23b02a-2f95-4865-8a68-b4873fa9c435/6a5f9085-7969-49b1-a6c0-2f79098db7d5-master.m3u8https://video.igem.org/videos/embed/sWkkMBrViCLA7VuUDHMtY29390462021-11-05T13:43:12.032ZYESiGEM TVNOhttps://video.igem.org/w/aaiaqLR192yY65FiRVRMoMhttps://video.igem.org/lazy-static/thumbnails/85b25d7a-82a9-4381-9c1d-7fc1b057ff3e.jpgiGEM Commentators 2021 - TherapeuticsEvery year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. The guest in this episode is Maria Cecília de Souza Lelis from Brazil. If you are interested in the projects we quickly discussed, you can check their full presentation video here: Greece_United - https://video.igem.org/w/oRmCHdg9dK7AHoQgn3sFG4 Victoria_Wellington - https://video.igem.org/w/6qZepBmUNj6C6qZzCoEVJhhttps://static.igem.org/peertube/streaming-playlists/hls/4a2e84c6-d448-4757-860a-a06e912c27d5/fd4e1d91-1bfb-4b9e-858f-b930e278ff5f-master.m3u8https://video.igem.org/videos/embed/aaiaqLR192yY65FiRVRMoM6170502021-11-05T14:00:50.370ZYESiGEM TVNOhttps://video.igem.org/w/fyXkqEhRsS9FypSxgyZb8Jhttps://video.igem.org/lazy-static/thumbnails/3f89e640-aa92-45bf-b4dc-65fd84e5fca0.jpgiGEM Commentators 2021 - SoftwareEvery year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. The guest in this episode is Stefan Zaharievski from the United Kingdom. If you are interested in the projects we quickly discussed, you can check their full presentation video here: SJTU-Software - https://video.igem.org/w/eiVSDjmZVWtLvNrz7GRuHt Tongji_Software - https://video.igem.org/w/94sC7KavHiFmm3FhFUbXzn UChicago - https://video.igem.org/w/iEN2QXKPwXd15gdiMxQzuDhttps://static.igem.org/peertube/streaming-playlists/hls/75f9d7de-2e92-4537-9a97-b00c8fd68030/39b350bc-433d-45e6-94f8-968e7f05c736-master.m3u8https://video.igem.org/videos/embed/fyXkqEhRsS9FypSxgyZb8J5900582021-11-05T14:05:48.766ZYESiGEM TVNOhttps://video.igem.org/w/hwdA1LmusgrWvkxfLvdtRahttps://video.igem.org/lazy-static/thumbnails/cdd14e56-ae6b-4252-8d97-3c14e0cdfcb8.jpgiGEM Commentators 2021 - ManufacturingEvery year, hundreds of fascinating projects are developed by iGEMers to face the pressing challenges of our time and innovate for the future. The iGEM Commentators are iGEM alumni applying their passion and expertise in Synthetic Biology to highlight a few of those outstanding projects on iGEM TV. The guest in this episode is Cibele Zolnier from Brazil. If you are interested in the projects we quickly discussed, you can check their full presentation video here: Edinburgh - https://video.igem.org/w/fncqg3gMmSeSZpALRQ3zNC Paris_Bettencourt - https://video.igem.org/w/a2L71tTUPCmxVhK6wVPiEH SCUT-China - https://video.igem.org/w/9oUMcScfbu78W6sDyytfFQ Toulouse_INSA-UPS - https://video.igem.org/w/gvAj6w8BKog22bfZVXvFiThttps://static.igem.org/peertube/streaming-playlists/hls/85ca49cf-b356-418e-861b-d93542392c1f/aaadb1d8-ad7c-4d89-8ca0-c962751371dc-master.m3u8https://video.igem.org/videos/embed/hwdA1LmusgrWvkxfLvdtRa8750492021-11-05T14:14:10.282ZYESiGEM TVNOhttps://video.igem.org/w/pdaGE753k8YKVswK71qkefhttps://video.igem.org/lazy-static/thumbnails/76317275-e324-4309-a9ee-6ff04d700281.jpgSynBioFlix (Ep #2) - Elysium - Jamboree VersionIn this episode, our host Guilherme Kundlatsch receives JC Gray (DiaTech) and Alex Kelly (NeoSynBio) to discuss the blockbuster Elysium (2013). They talk about healthcare, neural links, living in space and explosions. They also highlight a few of the iGEM projects from last years that worked in the technologies we see in the movie. You can learn more about them here: http://2017.igem.org/Team:Calgary http://2017.igem.org/Team:Sydney_Australia http://2018.igem.org/Team:HAFS http://2018.igem.org/Team:Unesp_Brazil https://2019.igem.org/Team:Lethbridge https://2019.igem.org/Team:Sao_Carlos-Brazil https://2020.igem.org/Team:Toulouse_INSA-UPS They also highlight teams participating in iGEM 2021! LMSU - https://video.igem.org/w/1iHu5hCpQbAEvZyxA9eois Sorbonne_U_Paris - https://video.igem.org/w/rtco5ELamKYV8pX1dGRB76 CSU_CHINA - https://video.igem.org/w/3iB2WuGWs4HUUeYH1byzZshttps://static.igem.org/peertube/streaming-playlists/hls/bbf517c5-d6fb-45f2-bac7-2c22c11fd1ec/cad27bcd-bdde-4db4-a24c-7fb2eb69ed2b-master.m3u8https://video.igem.org/videos/embed/pdaGE753k8YKVswK71qkef16930172021-11-05T14:38:21.957ZYESiGEM TVNOhttps://video.igem.org/w/h2uvPbFLtqQztK6k8GimHzhttps://video.igem.org/lazy-static/thumbnails/95aec1f8-3a99-4179-a6dc-c055168c7363.jpgThe Mentors Network - iGEMing beyond the CompetitionThe Mentors Network - iGEMing beyond the Competitionhttps://static.igem.org/peertube/streaming-playlists/hls/81c788e3-98c0-4628-8cf5-9c6e2668c703/0327e77e-b64c-4d4a-9e73-b9a9fdb1adb0-master.m3u8https://video.igem.org/videos/embed/h2uvPbFLtqQztK6k8GimHz300062021-11-05T16:27:53.622ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/2vUdiaQ89hNawX6g9MCfkDhttps://video.igem.org/lazy-static/thumbnails/565c739b-8213-4c01-9739-af852ddaf33b.jpgWomen in STEMWomen in STEMhttps://static.igem.org/peertube/streaming-playlists/hls/0c45e280-d84b-4bba-b020-097231a92c1b/3dabdf2f-9e44-4158-8402-59d399d12c01-master.m3u8https://video.igem.org/videos/embed/2vUdiaQ89hNawX6g9MCfkD221012021-11-05T16:40:32.372ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/1wui1PbbqxZiRMwePGJQpphttps://video.igem.org/lazy-static/thumbnails/2d43ecb5-159f-4bc0-b60b-5dabb77b4956.jpg2021 Ambassador Experience: Africa2021 Ambassador Experience: Africahttps://static.igem.org/peertube/streaming-playlists/hls/0441bfde-ceb6-4220-a7c9-5eb259ed38bd/e8c89ea8-7af9-452e-9687-770d5e58ad97-master.m3u8https://video.igem.org/videos/embed/1wui1PbbqxZiRMwePGJQpp66042021-11-05T17:17:35.123ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/ap5vQK6sF72cpJbg77ZLdXhttps://video.igem.org/lazy-static/thumbnails/aa4d3f8b-8ffa-4cec-b447-aa09b3fd4d4c.jpgThe Future of the iGEM DistributionThe Future of the iGEM Distributionhttps://static.igem.org/peertube/streaming-playlists/hls/4c1b2305-84e1-42ba-bc39-0270cc0e82e7/dad3bde4-716b-42f7-b3be-0c95ef6d47ba-master.m3u8https://video.igem.org/videos/embed/ap5vQK6sF72cpJbg77ZLdX4140152021-11-05T17:54:53.859ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/tbHm3JjPTweBm1wsyqLSsihttps://video.igem.org/lazy-static/thumbnails/b0805fd6-d1a5-4e86-8936-35bffe9e3e87.jpgiGEM Podcasts: Immerse yourself in the SynBio audio documentaryiGEM Podcasts: Immerse yourself in the SynBio audio documentaryhttps://static.igem.org/peertube/streaming-playlists/hls/dc25a963-89f4-4ff1-8bae-318a0be9dcdd/68d26f3d-fb7d-4294-8a67-24107084c3c8-master.m3u8https://video.igem.org/videos/embed/tbHm3JjPTweBm1wsyqLSsi385022021-11-05T18:08:55.857ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/fY2aAD5cJyRNZM1tezQbZdhttps://video.igem.org/lazy-static/thumbnails/3c01add1-2895-406c-b6cb-a71ce228785d.jpgBiosafety in a Soviet Bioweapons Lab: An interview with Ken AlibekBiosafety in a Soviet Bioweapons Lab: An interview with Ken Alibekhttps://static.igem.org/peertube/streaming-playlists/hls/79324f83-de3d-428c-96d7-a40e0e531fce/0cd5b6ec-da4a-4b2a-9100-9fb175857ff3-master.m3u8https://video.igem.org/videos/embed/fY2aAD5cJyRNZM1tezQbZd3380282021-11-05T18:39:01.167ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/nHftw23SXHjzbdH3xwYztnhttps://video.igem.org/lazy-static/thumbnails/cdbe9fee-ba4c-441c-b9cd-28e8ea2d3cec.jpgEngineering Webinars: Educational ResourcesEngineering Webinars: Educational Resourceshttps://static.igem.org/peertube/streaming-playlists/hls/afd2539d-6a38-4051-a8f6-fa3de84e85d7/7a47b412-e6df-4703-9d83-0cc95005d25e-master.m3u8https://video.igem.org/videos/embed/nHftw23SXHjzbdH3xwYztn138032021-11-05T18:42:04.151ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/iX2sviaigN5vEgTd1d8Ly8https://video.igem.org/lazy-static/thumbnails/137a7568-ab61-46a8-aefb-3fc6b12d2e62.jpgEPIC Pitch: Environment Winner, BioFabEPIC Pitch: Environment Winner, BioFabhttps://static.igem.org/peertube/streaming-playlists/hls/915a2997-8798-448f-bd05-b38149b3becf/bffcf1b1-0722-4421-8f83-f641d244c0d1-master.m3u8https://video.igem.org/videos/embed/iX2sviaigN5vEgTd1d8Ly832401712021-11-07T15:50:00.393ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/iRxjjoC3d9eiZWYjrGrHEThttps://video.igem.org/lazy-static/thumbnails/c8d602b5-e729-4e8c-8e71-7c42d845e500.jpgEPIC Pitch: Environment, GeneOnEPIC Pitch: Environment, GeneOnhttps://static.igem.org/peertube/streaming-playlists/hls/909619db-6c43-468a-ace7-11750e3c611b/db26558c-999c-4ca7-ab5d-05f13065b271-master.m3u8https://video.igem.org/videos/embed/iRxjjoC3d9eiZWYjrGrHET11701132021-11-07T15:58:43.230ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/oArvvSWkGgxRANnVxLFfGshttps://video.igem.org/lazy-static/thumbnails/ce085ca5-ac02-4401-b589-6fbb5acd3c20.jpgEPIC Pitch: Environment, UmkeleEPIC Pitch: Environment, Umkelehttps://static.igem.org/peertube/streaming-playlists/hls/b6f80f21-9dc6-4b17-9220-9d1c0e04101a/d191515b-586f-4311-8eb3-3b91432cedd1-master.m3u8https://video.igem.org/videos/embed/oArvvSWkGgxRANnVxLFfGs2370632021-11-07T16:07:45.149ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/kjazWtGrMsZh3UBa1TZpWXhttps://video.igem.org/lazy-static/thumbnails/3a8b667e-2928-4c36-b89c-8ecd736f1dfe.jpgEPIC Pitch: Food, Algae ApetitEPIC Pitch: Food, Algae Apetithttps://static.igem.org/peertube/streaming-playlists/hls/9c66edf1-60ed-4344-a47a-00d2354bdf87/b1e8cd01-6a9e-4047-915d-ff3428014037-master.m3u8https://video.igem.org/videos/embed/kjazWtGrMsZh3UBa1TZpWX3640582021-11-07T16:19:13.261ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/pLbagrRxTWsDKKSsTbCFEBhttps://video.igem.org/lazy-static/thumbnails/d92233e7-c275-4ccd-855e-8ceb01d55e73.jpgEPIC Pitch: Health and Final Winner, Curem BiotechEPIC Pitch: Health and Final Winner, Curem Biotechhttps://static.igem.org/peertube/streaming-playlists/hls/c06d2d1d-d961-42e3-81e1-679fd0e6a4db/b4e28638-efe3-43be-b0e0-09eb83beef61-master.m3u8https://video.igem.org/videos/embed/pLbagrRxTWsDKKSsTbCFEB25705222021-11-07T16:26:41.727ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/8rwvSuJLMBrm6xDEW1CG6Shttps://video.igem.org/lazy-static/thumbnails/2561471e-30ae-4748-bec8-4313dc5ee472.jpgEPIC Pitch: Food, JellatechEPIC Pitch: Food, Jellatechhttps://static.igem.org/peertube/streaming-playlists/hls/3c405ed3-68a4-410d-84f0-1a207330c754/db19dacf-cd02-49d3-b385-59a292d83730-master.m3u8https://video.igem.org/videos/embed/8rwvSuJLMBrm6xDEW1CG6S4290722021-11-07T16:40:20.020ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/syAPwfSERTfaU1kqcZKZkBhttps://video.igem.org/lazy-static/thumbnails/da3edbad-f0d7-4ea9-912f-1700ea4218ee.jpgiGEM EPIC - Startup Showcase, Nov 13 (Trailer)iGEM EPIC - Startup Showcase, Nov 13 (Trailer)https://static.igem.org/peertube/streaming-playlists/hls/d71add2d-c7cb-41f4-b502-2aec2bcf161d/965f04f4-02e6-4687-9316-944fe0980859-master.m3u8https://video.igem.org/videos/embed/syAPwfSERTfaU1kqcZKZkB3401292021-11-07T15:45:53.178ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/7b6dw8E7y56j3SAevoErtJhttps://video.igem.org/lazy-static/thumbnails/12c493e3-2bad-4b23-ae6f-4f568147d532.jpgiGEM EPIC - Program PromoiGEM EPIC - Program Promohttps://static.igem.org/peertube/streaming-playlists/hls/31ff7bea-4f06-40bf-9796-8e6951ea6f7c/780cbc30-cf3b-4e0e-ba59-968ad12a3db3-master.m3u8https://video.igem.org/videos/embed/7b6dw8E7y56j3SAevoErtJ490412021-11-07T15:52:10.087ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/qx552Kq1CnL1ZLfkPu2cvPhttps://video.igem.org/lazy-static/thumbnails/3a95c4d3-f2f4-4e40-8bde-121dfea0b8a3.jpgiGEM EPIC - Biofounder Recruitment (Biohackathon & VCL)iGEM EPIC - Biofounder Recruitment (Biohackathon & VCL)https://static.igem.org/peertube/streaming-playlists/hls/c6b1e482-b057-4e1a-963c-c31be0850755/00cdc069-0605-4f5d-8838-d4e6bb90cd4a-master.m3u8https://video.igem.org/videos/embed/qx552Kq1CnL1ZLfkPu2cvP46022021-11-07T15:53:09.570ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/ideXyw5TZYMUCpNSD3JyVThttps://video.igem.org/lazy-static/thumbnails/df1fefb1-d8a0-4b09-b2e3-59181bbb1c8c.jpgiGEM EPIC - Committee & Mentor RecruitmentiGEM EPIC - Committee & Mentor Recruitmenthttps://static.igem.org/peertube/streaming-playlists/hls/8b60e264-9999-4042-b8a0-a90d7e4cc805/dc737413-6aa8-4fd8-9944-70e662eb7303-master.m3u8https://video.igem.org/videos/embed/ideXyw5TZYMUCpNSD3JyVT42012021-11-07T15:53:40.690ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/acZfRFyTTGKmQkxWawh2Mghttps://video.igem.org/lazy-static/thumbnails/f62b842d-378c-4e9d-aaba-77c1d5679a4c.jpgUSAFA: DeFluorine Machine - The iGEM Team (Old Town Road Musical Parody) (2021) [English]The USAFA 2021 iGEM team produced this musical parody to help raise awareness about the PFAS problem and the important work the iGEM team is doing to find novel synthetic biology and bioengineering solutions.https://static.igem.org/peertube/streaming-playlists/hls/4a8eb6fa-d4b9-4bb8-bfc8-380a1dac1665/44d78504-5ec9-4b04-a84a-5acaa2d703d2-master.m3u8https://video.igem.org/videos/embed/acZfRFyTTGKmQkxWawh2Mg1780402021-11-07T17:55:22.573ZYESiGEM 2021 TeamsNOhttps://video.igem.org/w/mc4ZA9wVCCHe5fC1ycUxt3https://video.igem.org/lazy-static/thumbnails/4bdc2760-2484-41fe-b4ed-f47f696c8034.jpgEPIC Pitch: Health, CustommuneEPIC Pitch: Health, Custommunehttps://static.igem.org/peertube/streaming-playlists/hls/a3826a56-d7b5-48f6-8fb7-8aa7da7cfd4c/29da87c4-2d21-4f54-bcdb-d42d0598b76a-master.m3u8https://video.igem.org/videos/embed/mc4ZA9wVCCHe5fC1ycUxt33310572021-11-08T17:19:04.853ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/qaMj71Suv92mJcR3dNs8hThttps://video.igem.org/lazy-static/thumbnails/86dbd9e1-df13-4a7b-b427-61dcc0b2bec0.jpgEPIC Pitch: Health, Nanocraft TherapeuticsEPIC Pitch: Health, Nanocraft Therapeuticshttps://static.igem.org/peertube/streaming-playlists/hls/c3b8f244-e5fe-4c2b-8b66-b185af74da3f/bccb7625-21e6-400f-ad4d-20df99ff756e-master.m3u8https://video.igem.org/videos/embed/qaMj71Suv92mJcR3dNs8hT3180512021-11-08T17:20:16.788ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/rka3q5FPELBiPjrRnK66Umhttps://video.igem.org/lazy-static/thumbnails/e63c2856-d857-4f17-b504-9bc5dc6bf8b4.jpgEPIC Pitch: Health, RapidemicEPIC Pitch: Health, Rapidemichttps://static.igem.org/peertube/streaming-playlists/hls/cd212b94-c982-4544-aa05-733bbad774e8/fcdfecab-67e8-46f1-b679-114774407e54-master.m3u8https://video.igem.org/videos/embed/rka3q5FPELBiPjrRnK66Um3550792021-11-08T17:36:57.036ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/2B29Zyr8Vk1fFjgeDiEzB9https://video.igem.org/lazy-static/thumbnails/7cc9f657-178f-477f-993a-baac40bc4659.jpgEPIC Pitch: Food Winner, RebXEPIC Pitch: Food Winner, RebXhttps://static.igem.org/peertube/streaming-playlists/hls/0cfce1e6-e6b8-4ab1-865a-a5c0b294787a/d5998974-0435-40a9-aac1-479ac169f010-master.m3u8https://video.igem.org/videos/embed/2B29Zyr8Vk1fFjgeDiEzB925301592021-11-08T17:38:45.422ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/frS7j9tHMK2s4Nm2M9vNkLhttps://video.igem.org/lazy-static/thumbnails/17c38ea8-f829-47c5-b68f-613413a39abe.jpgEPIC Pitch: Food, UniphageEPIC Pitch: Food, Uniphagehttps://static.igem.org/peertube/streaming-playlists/hls/74fc6a89-8b1d-44a3-b06a-4a37bd16c15a/692b351b-db4a-4fdd-bc91-f6d5733cf084-master.m3u8https://video.igem.org/videos/embed/frS7j9tHMK2s4Nm2M9vNkL3360482021-11-08T17:40:42.317ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/ji9uRUHpFXXWMaVmoxyUUfhttps://video.igem.org/lazy-static/thumbnails/8dc0bcd9-7aa7-4aa0-907b-f7f243138f87.jpgEPIC Pitch: Health, Mosquito Guard UgandaEPIC Pitch: Health, Mosquito Guard Ugandahttps://static.igem.org/peertube/streaming-playlists/hls/94296075-e078-4fac-b717-aa8884df3156/4b64dee9-4e0b-4525-89bc-d133dec188eb-master.m3u8https://video.igem.org/videos/embed/ji9uRUHpFXXWMaVmoxyUUf3660442021-11-08T17:43:05.334ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/7FNMfmYcLv3RcwvKKkssaFhttps://video.igem.org/lazy-static/thumbnails/9b5e811e-094f-4656-bcd0-f15ed7612c5f.jpgJudging Sessions Warm Up #1Judging Sessions Warm Up #1https://static.igem.org/peertube/streaming-playlists/hls/3625ab13-c06b-4599-9a8f-8d7b75c73739/002adec9-5d97-48d7-a9c4-5cba909c7dd4-master.m3u8https://video.igem.org/videos/embed/7FNMfmYcLv3RcwvKKkssaF287062021-11-09T08:44:22.782ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/j8Ud1AzKA61zu62w9C8RZPhttps://video.igem.org/lazy-static/thumbnails/15715a41-2bcb-45a6-af2b-a400218d9cce.jpgJudging Sessions Warm Up #2Judging Sessions Warm Up #2https://static.igem.org/peertube/streaming-playlists/hls/92dee042-fd68-4492-9059-4fa2bc190255/029ce7f4-d6dc-4555-9ce3-37413322dfb3-master.m3u8https://video.igem.org/videos/embed/j8Ud1AzKA61zu62w9C8RZP247012021-11-09T09:02:01.845ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/uFW1GwBRA645gAtcFrdudohttps://video.igem.org/lazy-static/thumbnails/0a6eaa8d-c23b-41ad-be0c-100a901c6f27.jpgJudging Sessions Warm Up #4Judging Sessions Warm Up #4https://static.igem.org/peertube/streaming-playlists/hls/e8532cf5-36a4-4be8-b863-1e88d3b3bece/6cdee962-cec7-4256-8d2f-01677219cd3e-master.m3u8https://video.igem.org/videos/embed/uFW1GwBRA645gAtcFrdudo360002021-11-09T09:35:22.497ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/iyd8MxnHW6NWkmpk8i7v5zhttps://video.igem.org/lazy-static/thumbnails/2996d880-3345-4031-a11e-f79b614aa0c4.jpgJudging Sessions Warm Up #5Judging Sessions Warm Up #5https://static.igem.org/peertube/streaming-playlists/hls/8e2aa2c6-9da9-40dc-a364-2a8428d1b2bd/3809b9b7-3f94-4625-a32b-2c98e55c05ce-master.m3u8https://video.igem.org/videos/embed/iyd8MxnHW6NWkmpk8i7v5z330002021-11-09T10:00:25.087ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/hYerk9VDZvfX5nUxFCfz3chttps://video.igem.org/lazy-static/thumbnails/238aa26a-e773-4a0b-aa0f-66ab2913a8a3.jpgJudging Sessions Warm Up #6Judging Sessions Warm Up #6https://static.igem.org/peertube/streaming-playlists/hls/896c267d-d9c1-4c03-b421-762c28fadeb3/03505510-9ab0-43e4-a9d1-8d3247b27e2a-master.m3u8https://video.igem.org/videos/embed/hYerk9VDZvfX5nUxFCfz3c310002021-11-09T10:22:40.142ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/qzLVGU1tQanDybmozkp7WShttps://video.igem.org/lazy-static/thumbnails/75daff50-a7f5-463c-9d51-73c64e046803.jpgJudging Sessions Warm Up #7Judging Sessions Warm Up #7https://static.igem.org/peertube/streaming-playlists/hls/c7128f10-d05b-4f2a-9503-c067ed71082e/7cafc0d3-14e0-4346-95c4-c2f1560d237f-master.m3u8https://video.igem.org/videos/embed/qzLVGU1tQanDybmozkp7WS329012021-11-09T10:44:54.471ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/cb82KDaz94bdc3QYUFgjYnhttps://video.igem.org/lazy-static/thumbnails/bbc0d102-69f8-4c59-8a3b-9140a5f05b80.jpgJudging Sessions Warm Up #8Judging Sessions Warm Up #8https://static.igem.org/peertube/streaming-playlists/hls/5a7e4ba4-cc15-45e1-9449-85e9795ee995/1c941883-59ca-47b3-8d7e-8134b5e7862d-master.m3u8https://video.igem.org/videos/embed/cb82KDaz94bdc3QYUFgjYn327012021-11-09T11:04:19.167ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/aWjfnQFkytbEjL3X2HzqVXhttps://video.igem.org/lazy-static/thumbnails/3f20e2dc-e069-4662-a529-6b0c597e092a.jpgJudging Sessions Warm Up #9Judging Sessions Warm Up #9https://static.igem.org/peertube/streaming-playlists/hls/5077a83c-4e33-47d6-8bfc-32b76b2518b1/68062f31-135e-4ef4-b2d0-e2487d68dbec-master.m3u8https://video.igem.org/videos/embed/aWjfnQFkytbEjL3X2HzqVX305002021-11-09T11:24:58.713ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/d3HiasvWVLg9MCZPLDWJLRhttps://video.igem.org/lazy-static/thumbnails/66efca7f-b4b9-424f-9c1c-75b3bde97abf.jpgJudging Sessions Warm Up #10Judging Sessions Warm Up #10https://static.igem.org/peertube/streaming-playlists/hls/618e99d9-45c3-4abf-b84e-3011b9639b91/4ef5e186-1ddf-48a2-93a8-af877e1f6970-master.m3u8https://video.igem.org/videos/embed/d3HiasvWVLg9MCZPLDWJLR287002021-11-09T11:44:20.203ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/wWjvUGsumUaNapEQ8dpJzrhttps://video.igem.org/lazy-static/thumbnails/66db2c4b-c320-4d39-9062-d5519ce6373a.jpgJudging Sessions Warm Up #11Judging Sessions Warm Up #11https://static.igem.org/peertube/streaming-playlists/hls/fa87bbeb-99e3-4b65-94a5-98fb56ee1933/94860c49-cbd0-4c55-8e72-ffdefc67ffed-master.m3u8https://video.igem.org/videos/embed/wWjvUGsumUaNapEQ8dpJzr249012021-11-09T11:59:45.346ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/5z2LABbehifUB3Dy1qMGXZhttps://video.igem.org/lazy-static/thumbnails/d9a018b9-b424-41f9-9d82-bbf33406ad78.jpgJudging Sessions Warm Up #12Judging Sessions Warm Up #12https://static.igem.org/peertube/streaming-playlists/hls/2501306d-fc1a-472f-9f3e-801a1c4c7957/04f54c8d-23ae-41c0-bdf6-6731a47612ca-master.m3u8https://video.igem.org/videos/embed/5z2LABbehifUB3Dy1qMGXZ255012021-11-09T12:18:08.032ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/fRxhqtKWfPxTu1wECUE9YQhttps://video.igem.org/lazy-static/thumbnails/ff316c5f-a995-4b01-8733-32aa46d88bfd.jpgJudging Sessions Warm Up #13Judging Sessions Warm Up #13https://static.igem.org/peertube/streaming-playlists/hls/784aaa36-2b4a-4106-be84-d61abd117e30/3f4d52fe-1762-4b91-97a4-bb450921fc8d-master.m3u8https://video.igem.org/videos/embed/fRxhqtKWfPxTu1wECUE9YQ341012021-11-09T12:39:18.371ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/bJmmLjSMxF6iLsE24s2Gxfhttps://video.igem.org/lazy-static/thumbnails/7940c2dc-a6eb-4c0a-9c60-ca7d0bc7a37e.jpgJudging Sessions Warm Up #14Judging Sessions Warm Up #14https://static.igem.org/peertube/streaming-playlists/hls/56e52bc7-062b-469c-950b-f6e8b89cc69c/caa1f099-bed7-4985-b0a4-d1b8c4c6c2d7-master.m3u8https://video.igem.org/videos/embed/bJmmLjSMxF6iLsE24s2Gxf308002021-11-09T12:55:24.340ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/cgnnJpwkgxhwKFm9egoophhttps://video.igem.org/lazy-static/thumbnails/a063a451-a062-45a1-b04e-725a9eda2790.jpgJudging Sessions Warm Up #15Judging Sessions Warm Up #15https://static.igem.org/peertube/streaming-playlists/hls/5b39dabb-588d-429a-ae40-7fd6347fd3de/bd91736a-dd16-433c-82d1-70e2d1ee4b5f-master.m3u8https://video.igem.org/videos/embed/cgnnJpwkgxhwKFm9egooph329042021-11-09T13:17:35.596ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/qYkQRVFqeEHRenAe8cyRD8https://video.igem.org/lazy-static/thumbnails/b7030800-5c62-4f48-9929-93b877532efe.jpgJudging Sessions Warm Up #16Judging Sessions Warm Up #16https://static.igem.org/peertube/streaming-playlists/hls/ca393510-f5eb-457c-97ac-fdff3047819d/9cf696d7-407c-4433-b25c-72048f683f57-master.m3u8https://video.igem.org/videos/embed/qYkQRVFqeEHRenAe8cyRD8328012021-11-09T13:42:56.506ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/gJGpmuM4HsRukWgDkxrTWshttps://video.igem.org/lazy-static/thumbnails/2788453f-2a95-4ecf-b440-cdef39e9fdcc.jpgJudging Sessions Warm Up #17Judging Sessions Warm Up #17https://static.igem.org/peertube/streaming-playlists/hls/7f6f379d-f883-453c-a746-6e0754e9a8fa/8c29dd95-3e1f-47d6-828e-aa804101ed9c-master.m3u8https://video.igem.org/videos/embed/gJGpmuM4HsRukWgDkxrTWs356002021-11-09T14:03:03.210ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/oSpv3jDA7x3VDGpPwYWwxghttps://video.igem.org/lazy-static/thumbnails/f72979e7-fef6-4aaf-8e23-7a039999cc17.jpgJudging Sessions Warm Up #18Judging Sessions Warm Up #18https://static.igem.org/peertube/streaming-playlists/hls/b932b8ca-2743-4a96-b288-a3df98528f3d/f3c2217a-5590-4ff1-99e9-fd8b792fead4-master.m3u8https://video.igem.org/videos/embed/oSpv3jDA7x3VDGpPwYWwxg303002021-11-09T14:22:39.831ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/svtyoHvzimBTELX9Bu8AS1https://video.igem.org/lazy-static/thumbnails/d05cadcb-80f7-4957-866b-2cff8d899669.jpgJudging Sessions Warm Up #19Judging Sessions Warm Up #19https://static.igem.org/peertube/streaming-playlists/hls/d6ab2872-fa6e-4f08-bd08-8007c6024354/f50ad5e9-f0c5-4926-93c2-d1b154329318-master.m3u8https://video.igem.org/videos/embed/svtyoHvzimBTELX9Bu8AS1359002021-11-09T14:55:07.545ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/6JuJ5gyQAnpWzWon6BxaF3https://video.igem.org/lazy-static/thumbnails/e712b349-5c91-468e-8e7f-786c52e13c04.jpgJudging Sessions Warm Up #20Judging Sessions Warm Up #20https://static.igem.org/peertube/streaming-playlists/hls/2e6ca261-8a5a-4d81-86f0-fa6be841b984/ea184600-2d02-47c4-ba89-df0291e466e6-master.m3u8https://video.igem.org/videos/embed/6JuJ5gyQAnpWzWon6BxaF3334002021-11-09T15:15:16.396ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/nvdfWo7Ygzb8RriocjroBThttps://video.igem.org/lazy-static/thumbnails/a63b6051-b5c2-48e6-92e0-cd4ce5b6d903.jpgJudging Sessions Warm Up #21Judging Sessions Warm Up #21https://static.igem.org/peertube/streaming-playlists/hls/ae240900-eb43-4dd6-b80f-6604c4343b21/bd901ed2-c34f-4d55-b35c-9ac8e221f070-master.m3u8https://video.igem.org/videos/embed/nvdfWo7Ygzb8RriocjroBT324012021-11-09T15:31:46.791ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/7h6q8dvVgEX4Khb3dK9hpihttps://video.igem.org/lazy-static/thumbnails/8dbc2221-a04e-4daf-a88c-5b138a02023a.jpgJudging Sessions Warm Up #22Judging Sessions Warm Up #22https://static.igem.org/peertube/streaming-playlists/hls/32d611e9-9431-410f-ae0a-5bdb706cc577/91680c65-66c7-4bf7-901a-ed3294f44b79-master.m3u8https://video.igem.org/videos/embed/7h6q8dvVgEX4Khb3dK9hpi377012021-11-09T16:23:31.677ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/cSwSd6VqDyPkRQM5AbkUuwhttps://video.igem.org/lazy-static/thumbnails/82de5c2f-4d1d-483f-88dd-57cddd09fdcc.jpgJudging Sessions Warm Up #23Judging Sessions Warm Up #23https://static.igem.org/peertube/streaming-playlists/hls/6022bc43-59f6-4eea-b22c-c1a691d6641e/ff2e54fc-f498-456c-b2a9-39f5ea845dca-master.m3u8https://video.igem.org/videos/embed/cSwSd6VqDyPkRQM5AbkUuw398002021-11-09T16:43:47.482ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/3ZRWaS8VvQbFzoE6QRgESFhttps://video.igem.org/lazy-static/thumbnails/04f1d7d5-4cdc-43e2-ad4d-ffc1784ae618.jpgJudging Sessions Warm Up #24Judging Sessions Warm Up #24https://static.igem.org/peertube/streaming-playlists/hls/184671f2-c17d-4058-8821-84fc373bdf7b/5c676ba1-3e96-4a15-9a9f-08df213af447-master.m3u8https://video.igem.org/videos/embed/3ZRWaS8VvQbFzoE6QRgESF385012021-11-09T17:06:26.112ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/nQoBSaM8p9eJE7MqEb47Sohttps://video.igem.org/lazy-static/thumbnails/b3a2d569-9d26-4e6e-aa43-6f9e55db7816.jpgJudging Sessions Warm Up #25Judging Sessions Warm Up #25https://static.igem.org/peertube/streaming-playlists/hls/b0d18d48-0897-4ff4-8df8-2e10e3ae819a/86d5cfc1-d1ff-4da5-bd4e-01bc1a913ddb-master.m3u8https://video.igem.org/videos/embed/nQoBSaM8p9eJE7MqEb47So421002021-11-09T17:34:07.201ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/kKWsXS5Fs1tsYuBs42zuPohttps://video.igem.org/lazy-static/thumbnails/a43b0b9d-ebd3-4f33-ac48-f61d9d41c801.jpgJudging Sessions Warm Up #26Judging Sessions Warm Up #26https://static.igem.org/peertube/streaming-playlists/hls/a0002e8c-25e0-4fea-ba5b-f52290c965c4/470818c7-2138-45e5-b82c-47767ea31b5d-master.m3u8https://video.igem.org/videos/embed/kKWsXS5Fs1tsYuBs42zuPo399022021-11-09T18:01:28.012ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/8mFrZoMq6p7ysvuX8oq9c1https://video.igem.org/lazy-static/thumbnails/4305bc55-f805-45a4-91be-928003be81c0.jpgJudging Sessions Warm Up #27Judging Sessions Warm Up #27https://static.igem.org/peertube/streaming-playlists/hls/3b932822-3d8b-4c87-9c27-8e49077b34de/f9f26a26-c1d5-475a-970a-e34da2203190-master.m3u8https://video.igem.org/videos/embed/8mFrZoMq6p7ysvuX8oq9c1364022021-11-09T18:33:58.447ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/nki6xQhCqKeEoWvUDJovS5https://video.igem.org/lazy-static/thumbnails/042675e5-dd37-4481-b2ad-4884b3165751.jpgJudging Sessions Warm Up #28Judging Sessions Warm Up #28https://static.igem.org/peertube/streaming-playlists/hls/acc1943d-f6cb-4f93-85e0-455ea39ec41c/05590679-0b6c-4dec-b541-d9d60fae96b7-master.m3u8https://video.igem.org/videos/embed/nki6xQhCqKeEoWvUDJovS5349012021-11-09T18:52:17.258ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/vpEKPVdbWYuwpNLAg18HVShttps://video.igem.org/lazy-static/thumbnails/26ff6a40-f494-4ceb-bb3d-d86843ccc135.jpgJudging Sessions Warm Up #29Judging Sessions Warm Up #29https://static.igem.org/peertube/streaming-playlists/hls/ee270308-af5b-4b9f-9c42-b9acbed9c0f0/1cc385b9-9d50-4a23-9c32-c56ac97613b8-master.m3u8https://video.igem.org/videos/embed/vpEKPVdbWYuwpNLAg18HVS312022021-11-09T19:10:35.663ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/kENNrLwHGGRsdJK4FAwPRthttps://video.igem.org/lazy-static/thumbnails/964b905f-436c-4ec6-94fa-7b0ad8290b0d.jpgJudging Sessions Warm Up #30Judging Sessions Warm Up #30https://static.igem.org/peertube/streaming-playlists/hls/9f48bd63-33a7-4d9b-bd34-7939cfc53541/d6c14ad1-6092-4a54-b7db-0391bba0b845-master.m3u8https://video.igem.org/videos/embed/kENNrLwHGGRsdJK4FAwPRt324012021-11-09T19:30:26.209ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/dfteiMqfTLH7FNqwHgQdnDhttps://video.igem.org/lazy-static/thumbnails/5f0abf69-bede-4ddb-9195-ac6e9b9db9e6.jpgJudging Sessions Warm Up #31Judging Sessions Warm Up #31https://static.igem.org/peertube/streaming-playlists/hls/6332db80-73bc-4827-b96c-64cbabb0a027/b98aa61f-b13d-467f-9b88-3213a3db3800-master.m3u8https://video.igem.org/videos/embed/dfteiMqfTLH7FNqwHgQdnD436022021-11-09T19:59:33.217ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/eqEpndE4Kk6jMviQEdDQgShttps://video.igem.org/lazy-static/thumbnails/fab5da32-f5e0-4523-bfd9-dbaaef910157.jpgJudging Sessions Warm Up #32Judging Sessions Warm Up #32https://static.igem.org/peertube/streaming-playlists/hls/6cb851d5-6a34-43d2-bea1-fcf395100220/954a1a0e-df38-4875-9df2-4790c0b33e92-master.m3u8https://video.igem.org/videos/embed/eqEpndE4Kk6jMviQEdDQgS415022021-11-09T20:22:32.919ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/7rTGzTkfJUrtGLYPzR4Mz1https://video.igem.org/lazy-static/thumbnails/732b7708-2c1c-48ea-94ba-320f2e188c16.jpgJudging Sessions Warm Up #33Judging Sessions Warm Up #33https://static.igem.org/peertube/streaming-playlists/hls/3434498c-737c-435d-b026-5a86fa0010b6/66f0ef20-2507-4b25-8068-596d3444329c-master.m3u8https://video.igem.org/videos/embed/7rTGzTkfJUrtGLYPzR4Mz1490042021-11-09T20:55:33.782ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/mu7VMoM6ssT3tv5VnzTEfXhttps://video.igem.org/lazy-static/thumbnails/37cec9bf-1f0e-449b-9be9-28b97606f7f7.jpgJudging Sessions Warm Up #34Judging Sessions Warm Up #34https://static.igem.org/peertube/streaming-playlists/hls/a5e3de2b-8b6e-455c-8658-17ddac1b1223/f02fc2aa-7324-4426-b656-0c0c6c3d93e3-master.m3u8https://video.igem.org/videos/embed/mu7VMoM6ssT3tv5VnzTEfX418042021-11-09T21:32:15.516ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/1agTt4xU4e6qe8y7mqB1hqhttps://video.igem.org/lazy-static/thumbnails/27483720-456a-4712-afb4-3d2455feef24.jpgJudging Sessions Warm Up #35Judging Sessions Warm Up #35https://static.igem.org/peertube/streaming-playlists/hls/014b7c1f-cc77-4b98-96c4-406aa846c7b0/73c5ac9c-c476-4797-a5dd-516b984a6de7-master.m3u8https://video.igem.org/videos/embed/1agTt4xU4e6qe8y7mqB1hq406032021-11-09T21:56:42.795ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/2d8RpXhawmY2cisMUzDsvohttps://video.igem.org/lazy-static/thumbnails/da3d0c61-7e7e-4c38-b3f7-f23f23625dea.jpgJudging Sessions Warm Up #36Judging Sessions Warm Up #36https://static.igem.org/peertube/streaming-playlists/hls/09cae720-2fb2-4995-912f-d82f9d0c54e8/aa9e0fe3-3739-4a19-bbd7-91c43bc36260-master.m3u8https://video.igem.org/videos/embed/2d8RpXhawmY2cisMUzDsvo374002021-11-09T22:18:24.255ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/54sF3ynhyTyu9VTSLSpi1Hhttps://video.igem.org/lazy-static/thumbnails/4c39ac64-68b6-4bc7-899c-14ef66276b68.jpgJudging Sessions Warm Up #3Judging Sessions Warm Up #3https://static.igem.org/peertube/streaming-playlists/hls/20e03950-0b1c-422b-a7c1-aec6627092c5/4fa366b5-fd9f-4495-811a-85c5453cfd85-master.m3u8https://video.igem.org/videos/embed/54sF3ynhyTyu9VTSLSpi1H243042021-11-09T22:41:46.090ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/8gbLoKEK8NzCSxzum8HdGDhttps://video.igem.org/lazy-static/thumbnails/ada91a66-e9a8-4e50-8d12-1634fa17084b.jpgLINKS_China: The Neoleathic Age (2021) [English]🌟THE NEOLEATHIC AGE🌟 This is the documentary of our project and the introduction of our product Neoleather and Tyrian Purple dye. Welcome to join us and enjoy this revolutionary NeoLeathic Age!!! Director: Stephen Ye Cameraman: Richard Zhang, Hayden He Cast: All members of LINKS_China ⚠️Notice: All colored materials used in the video were dyed by using the dyes bought from the market for demonstration usage and safety concerns.https://static.igem.org/peertube/streaming-playlists/hls/3acec2f6-7f2a-495b-9061-52a02dad57bd/2d61be49-9209-45d3-9ae1-a7c7363ecfab-master.m3u8https://video.igem.org/videos/embed/8gbLoKEK8NzCSxzum8HdGD1450822021-11-10T08:05:38.583ZTyrian PurpleKombuchaNeoLeatherSpider SilkLuxuriesYESiGEM 2021 TeamsNOhttps://video.igem.org/w/bPHmtSUKHtCjaS37Nqxwimhttps://video.igem.org/lazy-static/thumbnails/4b959655-0ebc-4e72-909f-6db683e58b91.jpgWhy did you decide to participate in iGEM Design League?Why did you decide to participate in iGEM Design League?https://static.igem.org/peertube/streaming-playlists/hls/57a4d41c-00ba-48dd-ba3b-4652542ae3be/436d694a-5d09-4015-9e01-7dbbdc28f495-master.m3u8https://video.igem.org/videos/embed/bPHmtSUKHtCjaS37Nqxwim258002021-11-10T15:25:20.929ZYESiGEM Design LeagueNOhttps://video.igem.org/w/oAjSxtB8aMVifXsD2zDGv9https://video.igem.org/lazy-static/thumbnails/99583683-75a9-4a2b-bd30-674ce20fa5c2.jpgWhy is Synbio important for LATAM?Why is Synbio important for LATAM?https://static.igem.org/peertube/streaming-playlists/hls/b6f3f7f8-12b8-4279-96a1-3ec60903b7f2/1cf35161-74ea-4ec3-92c8-4c7d08a65c2f-master.m3u8https://video.igem.org/videos/embed/oAjSxtB8aMVifXsD2zDGv9394002021-11-10T15:25:57.097ZYESiGEM Design LeagueNOhttps://video.igem.org/w/aSDrXDKYrkidPf8xALeY4jhttps://video.igem.org/lazy-static/thumbnails/cd27ad82-fd01-4143-98b3-5f73c306bff3.jpgJudging Session: SZ_SHD (2021)Judging Session: SZ_SHD (2021)https://static.igem.org/peertube/streaming-playlists/hls/4ff483ab-1a07-47df-95f4-58442f1b99e8/ef961eaa-ac7a-4976-a3b1-b6ce58a969f1-master.m3u8https://video.igem.org/videos/embed/aSDrXDKYrkidPf8xALeY4j18180552021-11-10T15:32:56.797ZYES2021 Judging SessionsNOhttps://video.igem.org/w/wQhQgcrsxbnRya9SG3HSMmhttps://video.igem.org/lazy-static/thumbnails/e83bc6bd-fcb8-460c-91a8-bbd2acda0a0f.jpgWhy are you interested in Synbio?Why are you interested in Synbio?https://static.igem.org/peertube/streaming-playlists/hls/f9b03be1-ab9d-4dbe-8961-b87f86d1c856/4d30111c-2ed8-4c19-b60b-6f97bd3b9f69-master.m3u8https://video.igem.org/videos/embed/wQhQgcrsxbnRya9SG3HSMm312012021-11-10T16:10:03.248ZYESiGEM Design LeagueNOhttps://video.igem.org/w/nDkE31eGD28RMmCRbftmH8https://video.igem.org/lazy-static/thumbnails/ce90e95f-f3ad-4fbb-b771-4b6d2e58ada8.jpgWhy did you like most about iGEM Academy?Why did you like most about iGEM Academy?https://static.igem.org/peertube/streaming-playlists/hls/af468b6e-0127-42f1-9a2f-7b5e1a587fb9/900d5db9-f417-4e0a-8aef-6f73e54f2483-master.m3u8https://video.igem.org/videos/embed/nDkE31eGD28RMmCRbftmH8358002021-11-10T16:19:35.399ZYESiGEM Design LeagueNOhttps://video.igem.org/w/7n7JeEGzKCkdYVnxpAzsB2https://video.igem.org/lazy-static/thumbnails/8bdf6cb3-6385-4506-9f99-196200a2f86b.jpgJudging Session: LINKS_China (2021)Starts at [1h1m09s](https://video.igem.org/w/7n7JeEGzKCkdYVnxpAzsB2?start=1h1m09s)https://static.igem.org/peertube/streaming-playlists/hls/338998f7-c9d9-46a0-9389-31117a2d157f/2341a05f-af4b-4106-9cb1-98493bf61eee-master.m3u8https://video.igem.org/videos/embed/7n7JeEGzKCkdYVnxpAzsB251670672021-11-10T15:58:23.475ZYES2021 Judging SessionsNOhttps://video.igem.org/w/mdyF2DKekS9HsrurqDzy3Ehttps://video.igem.org/lazy-static/thumbnails/83fd9205-f2c9-4f51-a8a9-d861f333b29d.jpgJudging Session: Marburg (2021)Judging Session: Marburg (2021)https://static.igem.org/peertube/streaming-playlists/hls/a3b7d576-0dd7-4656-a941-ac98d28eb1d2/8655e601-6100-4be6-864f-7b839ff9b62c-master.m3u8https://video.igem.org/videos/embed/mdyF2DKekS9HsrurqDzy3E150902182021-11-10T16:03:34.808ZYES2021 Judging SessionsNOhttps://video.igem.org/w/qFz7SxA2ZahqofRq5gSsMjhttps://video.igem.org/lazy-static/thumbnails/07c21e71-d080-42c9-afe2-3171048f24e7.jpgJudging Session: TUDelft (2021)Judging Session: TUDelft (2021)https://static.igem.org/peertube/streaming-playlists/hls/c7e1beae-c32a-442c-a5f2-588655bd08ac/33e539e3-e091-45ee-9be2-9e7e82b35522-master.m3u8https://video.igem.org/videos/embed/qFz7SxA2ZahqofRq5gSsMj16000832021-11-10T16:10:01.813ZYES2021 Judging SessionsNOhttps://video.igem.org/w/t9iWrZGPCqGNjjwUUZnEkFhttps://video.igem.org/lazy-static/thumbnails/36b9e27b-5363-494b-83fc-93a884a6f8d6.jpgWhat did you like most about this year's competition?What did you like most about this year's competition?https://static.igem.org/peertube/streaming-playlists/hls/dbcfbfc7-4751-461e-8c51-42ea01e40825/9e9c453f-fea6-40e9-813e-32f9766ab722-master.m3u8https://video.igem.org/videos/embed/t9iWrZGPCqGNjjwUUZnEkF308002021-11-10T16:58:39.808ZYESiGEM Design LeagueNOhttps://video.igem.org/w/x4bguTFpM2bxZqQeyE45Z8https://video.igem.org/lazy-static/thumbnails/5a4cce29-beef-4ac3-bd5b-fbf92348a5cb.jpgQ1 Final Version What did you decide to participate in Design League?Q1 Final Version What did you decide to participate in Design League?https://static.igem.org/peertube/streaming-playlists/hls/fb7cdb6e-f855-46e1-89d2-e3d5d8f09b99/e857e44d-f309-4a00-85f0-89be8c78f52e-master.m3u8https://video.igem.org/videos/embed/x4bguTFpM2bxZqQeyE45Z8258002021-11-10T17:18:34.689ZYESiGEM Design LeagueNOhttps://video.igem.org/w/4iGYQb8mtJHHxDo4xQy9sPhttps://video.igem.org/lazy-static/thumbnails/31fd43d0-2f2d-403c-abb4-9c390514fd6e.jpgiGEM 2021: President's Messagejamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/1ac45096-3b95-442b-b457-fcc860bc7653/55ddfcbe-c27d-4af3-8067-a23b5d908eaa-master.m3u8https://video.igem.org/videos/embed/4iGYQb8mtJHHxDo4xQy9sP88002782021-11-16T11:34:11.105ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/cSgH14qPUA3PCubFpZyb1hhttps://video.igem.org/lazy-static/thumbnails/05e64a04-91dc-4bc6-b9db-ea00a82150de.jpgiGEM 2021: Jamboree Meetupsjamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/601964bb-bc75-4fd7-ab0f-874211e42f28/e378b9fe-2314-4148-8a87-48f7e1429b9f-master.m3u8https://video.igem.org/videos/embed/cSgH14qPUA3PCubFpZyb1h53101142021-11-16T16:35:39.195ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/4Cx3vXeEARkWnuqXsTHaEMhttps://video.igem.org/lazy-static/thumbnails/0ee035ba-e06a-4261-bec7-96162d320cf6.jpgiGEM Leagues1) What are iGEM Leagues? 2) Recap from iGEM Design League in Latin America, and 3) Launch of iGEM Indian Leaguehttps://static.igem.org/peertube/streaming-playlists/hls/1d6552a7-63bc-4abd-b0f1-5819bfd72da5/ef5dcb9c-65a5-4aa0-90a2-68d4ba2bd252-master.m3u8https://video.igem.org/videos/embed/4Cx3vXeEARkWnuqXsTHaEM5400482021-11-16T18:11:22.989ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/oCGHkuPHbsXeb377d8ghTZhttps://video.igem.org/lazy-static/thumbnails/bbcbf53f-c0be-41a3-9406-4ffe6ab649d5.jpgAfter iGEM: Moving from 2021 to 2022after.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/b748ea94-7675-4c10-8b52-f49105983bcf/cad13a3f-80b6-4699-a7bb-4759cd5c5126-master.m3u8https://video.igem.org/videos/embed/oCGHkuPHbsXeb377d8ghTZ26104992021-11-16T18:23:30.258ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/n83WrZcu8uLfvAKwWVAJBuhttps://video.igem.org/lazy-static/thumbnails/06c94f17-dd97-4914-ac63-97db0b6cc61a.jpgiGEM Design League in Latin AmericaiGEM Design League in Latin Americahttps://static.igem.org/peertube/streaming-playlists/hls/ab0bede8-3630-425e-baca-9751ba515852/0cbeac61-935d-4fa3-a180-fdcd86fb3e50-master.m3u8https://video.igem.org/videos/embed/n83WrZcu8uLfvAKwWVAJBu11201992021-11-16T18:34:43.712ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/6wFrUwJHnzZcEabzguNJTihttps://video.igem.org/lazy-static/thumbnails/6a0b99b2-6480-4d18-af77-26330272c298.jpgiGEM EPIC: Recap Messagejamboree.igem.org/epichttps://static.igem.org/peertube/streaming-playlists/hls/2cc650f6-85a2-4f11-8de9-48542bd7f917/194ab562-afaa-484c-b07e-ee70a3172765-master.m3u8https://video.igem.org/videos/embed/6wFrUwJHnzZcEabzguNJTi1240462021-11-16T19:54:13.372ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/miUVdAS9wNLjptHiLEwhe6https://video.igem.org/lazy-static/thumbnails/6f646c34-73cb-4894-8dc2-21ed2311ede6.jpgiGEM 2021: Medalsjamboree.igem.org/resultshttps://static.igem.org/peertube/streaming-playlists/hls/a4770764-cda5-4400-b0d0-e8ddc019df87/4c6657a7-e090-4af6-90e7-25213f85556e-master.m3u8https://video.igem.org/videos/embed/miUVdAS9wNLjptHiLEwhe624603422021-11-16T21:11:58.917ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/gEHvsg9XmhtZH8jgQyHaSQhttps://video.igem.org/lazy-static/thumbnails/d901b021-8e88-4f74-aaa3-ecf83d0d9cae.jpgiGEM 2021: Track Award Winnersjamboree.igem.org/resultshttps://static.igem.org/peertube/streaming-playlists/hls/7ee0ec5a-683d-49f8-81a1-6799ef5969f0/e24ae81a-a2ad-431a-8387-c2bc9ff75f7d-master.m3u8https://video.igem.org/videos/embed/gEHvsg9XmhtZH8jgQyHaSQ45301542021-11-16T23:04:30.775ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/eyhsdhTkyrwF3re4gf7Fs1https://video.igem.org/lazy-static/thumbnails/054ea726-98dd-42d7-87ca-2fe4a0605656.jpgiGEM 2021: High School Award Winnersjamboree.igem.org/resultshttps://static.igem.org/peertube/streaming-playlists/hls/6dc8bdf9-10fc-4e21-83ad-fb6798d2c2d0/274b0605-19ee-4fdf-9009-3c6821869406-master.m3u8https://video.igem.org/videos/embed/eyhsdhTkyrwF3re4gf7Fs118801252021-11-16T23:30:59.095ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/17Ugev9yUJ4SRXX8P9gTj3https://video.igem.org/lazy-static/thumbnails/55d9f16b-e959-4fc9-991e-32a57a815436.jpgThe Biobrick Trophies have arrived to Paris! - iGEM 2021 Giant Jamboreejamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/00f6abad-496d-4404-ba43-aa350de6c9ba/ca9a5278-ee76-47a1-b654-3c77548255de-master.m3u8https://video.igem.org/videos/embed/17Ugev9yUJ4SRXX8P9gTj31940302021-11-17T01:57:26.451ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/jx6BtDvaN3LdnoGCKqynzthttps://video.igem.org/lazy-static/thumbnails/de41a650-7245-49aa-a2fa-8b0c42dde4ce.jpgPresident's Welcome Message: iGEM 2021 Jamboree Openingjamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/961c02d4-f9b8-4231-82f6-86e81b59a8e9/be126fe8-836c-492c-945f-891662c716f4-master.m3u8https://video.igem.org/videos/embed/jx6BtDvaN3LdnoGCKqynzt2230172021-11-17T02:14:57.427ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/2TsuvwqNhTNPgWKXC8xg11https://video.igem.org/lazy-static/thumbnails/0b051159-70a7-4a7b-91ec-bc2bfa931cc2.jpgiGEM 2021: Giant Jamboree - Award Ceremony (Full)jamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/0f48659c-7609-4085-a328-ee35679f4924/75f4be44-6a03-4904-8640-b756e0e79359-master.m3u8https://video.igem.org/videos/embed/2TsuvwqNhTNPgWKXC8xg11622602192021-11-16T19:12:53.988ZYES2021 Giant JamboreeNOhttps://video.igem.org/w/guGgvrJ8Ry9rUDMZQXsNEphttps://video.igem.org/lazy-static/thumbnails/e9fe9723-e34d-4b2c-b2f8-cec181c54a45.jpgiGEM 2021 Giant Jamboree: Host Audition Tapesjamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/7d7ab89a-af59-47b3-a9ff-ec2dabb7376b/c4fb7af0-7912-4a03-b299-dd453b9b317d-master.m3u8https://video.igem.org/videos/embed/guGgvrJ8Ry9rUDMZQXsNEp5700362021-11-17T14:38:15.321ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/nY2LccmqCeo85RnUeUbyHBhttps://video.igem.org/lazy-static/thumbnails/6b336cc6-707f-4ccf-9061-3e1d9f8be2e1.jpgiGEM 2021: Finalists Interviewsjamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/b1e2a619-054a-4811-9ef8-131807070a5d/606682c0-4d4e-4358-bf7e-049b0aa21129-master.m3u8https://video.igem.org/videos/embed/nY2LccmqCeo85RnUeUbyHB8800452021-11-17T14:44:04.132ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/sRUc6Wato3WdZ5BSCVfLKJhttps://video.igem.org/lazy-static/thumbnails/691c42f0-2a45-4f8a-ba2e-ecc0cea8cdde.jpg2021 Jamboree Meetups: Livestream2021 Jamboree Meetups: Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/d98536c8-58a9-46dc-8595-b3c648c70f18/6f176988-e6ef-43fa-8dda-c2b770d2e01a-master.m3u8https://video.igem.org/videos/embed/sRUc6Wato3WdZ5BSCVfLKJ37870122021-11-17T15:20:02.553ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/aVttaAk2U9JCDUMCrZ5f9whttps://video.igem.org/lazy-static/thumbnails/8c16e66f-678a-4143-8453-987950fede5f.jpgiGEM EPIC - Startup Showcasejamboree.igem.org/epichttps://static.igem.org/peertube/streaming-playlists/hls/50599881-fd5f-407c-bfc3-42dea3b77736/e164770f-3b98-448a-a3d2-85d5eaa53de4-master.m3u8https://video.igem.org/videos/embed/aVttaAk2U9JCDUMCrZ5f9w528701552021-11-17T15:54:38.118ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/9HgfXi7oqk42fAjsV9smK6https://video.igem.org/lazy-static/thumbnails/5c0904f6-d745-45d9-8ed8-0d0d54d5dbed.jpgiGEM 2021 Competition Results: Special Prize Winnersjamboree.igem.org/resultshttps://static.igem.org/peertube/streaming-playlists/hls/468c01be-8717-48e1-b74a-02d0613fb4c3/03495aab-b90e-4844-aef3-a18eb84f6d99-master.m3u8https://video.igem.org/videos/embed/9HgfXi7oqk42fAjsV9smK656701292021-11-17T15:57:43.353ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/bU7gmm9FwACuV6s57TJp9bhttps://video.igem.org/lazy-static/thumbnails/9d8d0e66-021b-4a56-8b8c-77089f768c6f.jpgiGEM 2021 Competition Results: Grand Prize Winners Announcementjamboree.igem.org/resultshttps://static.igem.org/peertube/streaming-playlists/hls/5841ec62-992f-4256-9e32-3b1f91047796/534eadcf-25c9-425f-b233-1c3cd4ce6307-master.m3u8https://video.igem.org/videos/embed/bU7gmm9FwACuV6s57TJp9b881011242021-11-17T16:03:16.673ZsynbioYES2021 Giant JamboreeNOhttps://video.igem.org/w/nkrCA4EaFGEuefUtbmLijNhttps://video.igem.org/lazy-static/thumbnails/1e52c983-37a2-49a9-818c-3e325982ddf0.jpgiGEM 2021 Spotlight: Safety and Security Award NomineesMeet the 2021 Safety and Security Award nominees! What if we could frame biosafety and biosecurity as fun, technical engineering challenges? Let's celebrate young scientists creating new tools and methods that make the whole synbio community safer. In this video, meet teams Leiden, FCB-UANL, ZJU-China, TUDelft, Lambert_GA, IISER-Tirupati, Marburg, and NDNF_China, who explain their 2021 safety and security work in their own words! Featuring, in order of appearance: - iGEM Safety & Security: Tessa Alexania - Team Leiden: Iris Noordermeer, Quint van Loosen, Ehsan Razaghi Siahroudi - Team FCB_UANL: José Alonso Flores Coronado, Leonardo Uriel González Garza, Raúl Acosta Murillo - Team ZJU-China: JiangChu Lei - Team TU Delft: Minke Gabriëls - Team Lambert_GA: Neha Lingham, Zoya Mir - Team IISER Tirupati: Shubhra Singhal - Team Marburg: Yasoo Morimoto - Team NDNF_China: Haoran Wuhttps://static.igem.org/peertube/streaming-playlists/hls/acc6d6cb-6410-41f0-b2e7-aef4a6672ac6/5bfa195a-e729-4164-96e0-1b3f81dc43bd-master.m3u8https://video.igem.org/videos/embed/nkrCA4EaFGEuefUtbmLijN5700392021-11-24T21:49:06.600ZbiosafetyawardsbiosecurityYES2021 Giant JamboreeNOhttps://video.igem.org/w/ocGNuPqYHrxkdqaCrwG4V8https://video.igem.org/lazy-static/thumbnails/cbe87d52-5f71-4e07-85e3-9743cb10003e.jpgUiOslo_Norway: Judging Session (2021)UiOslo_Norway: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/b3cb607d-52f7-4b1d-8933-287f85e731b5/8dbd1888-308c-4197-ae15-bf51733137c4-master.m3u8https://video.igem.org/videos/embed/ocGNuPqYHrxkdqaCrwG4V8155704402021-11-26T17:16:32.890ZYES2021 Judging SessionsNOhttps://video.igem.org/w/hHaWwG3D7gGH3wkZH3X2k6https://video.igem.org/lazy-static/thumbnails/d7901dcc-2d67-44ce-97ed-5371c17ba14a.jpgHUST-China: Judging Session (2021)HUST-China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/8751d6c6-b6f8-499a-9c53-558f6d47328f/f5aeb57a-95cf-41c8-bf77-20db0f0964fc-master.m3u8https://video.igem.org/videos/embed/hHaWwG3D7gGH3wkZH3X2k617140842021-11-26T17:31:32.475ZYES2021 Judging SessionsNOhttps://video.igem.org/w/5uedwT4VspiGMcwfRsATx7https://video.igem.org/lazy-static/thumbnails/439c82bf-dfe8-438a-8684-9d08ed3b2665.jpgHUST2-China: Judging Session (2021)HUST2-China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/2455865f-9af8-4a53-a7c6-841d95e8dd48/40e7bc86-0ac3-46d8-b3f2-cd2f0fd69a55-master.m3u8https://video.igem.org/videos/embed/5uedwT4VspiGMcwfRsATx714610352021-11-26T17:45:24.942ZYES2021 Judging SessionsNOhttps://video.igem.org/w/wrxwGmRqgHv73VhYwSsy3khttps://video.igem.org/lazy-static/thumbnails/54d0d7e2-3e20-4f0a-8528-47ae9fbafc6a.jpgUIUC_Illinois: Judging Session (2021)UIUC_Illinois: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/f6832f44-241a-442d-90dc-1b1158cc41f7/c504188e-6b97-461c-b8d4-046404388c78-master.m3u8https://video.igem.org/videos/embed/wrxwGmRqgHv73VhYwSsy3k16380382021-11-26T17:50:02.116ZYES2021 Judging SessionsNOhttps://video.igem.org/w/2fj39NThUoft4RyWziDLL5https://video.igem.org/lazy-static/thumbnails/601efa8c-7411-4448-ad03-3058b7f39dd1.jpgSJTU-BioX-Shanghai: Judging Session (2021)SJTU-BioX-Shanghai: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/0a18aacd-85f2-4665-8c24-0ce0386d5824/d46d8851-bb06-43dc-8488-cf033ab19f6f-master.m3u8https://video.igem.org/videos/embed/2fj39NThUoft4RyWziDLL517380302021-11-26T17:55:21.288ZYES2021 Judging SessionsNOhttps://video.igem.org/w/9AGviFNxNqzFtxBDMeKnGQhttps://video.igem.org/lazy-static/thumbnails/f5ac48c0-8c32-478b-b9d0-beb162a78cd4.jpgTJUSLS_China: Judging Session (2021)TJUSLS_China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/45a15c16-1214-4847-a163-8101e473b09c/f0632142-a57d-4d73-b269-79911aaf818b-master.m3u8https://video.igem.org/videos/embed/9AGviFNxNqzFtxBDMeKnGQ16670292021-11-26T18:50:32.522ZYES2021 Judging SessionsNOhttps://video.igem.org/w/qdPwTujQM6sgdDLDqsEvsDhttps://video.igem.org/lazy-static/thumbnails/b0986e9c-eb4e-4483-b5f4-3bd085d667ff.jpgiBowu-China: Judging Session (2021)iBowu-China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/c4258bca-1ba2-4011-adc8-490dca512ded/9195e75c-138d-46ae-892b-9c7a2e7e0c3e-master.m3u8https://video.igem.org/videos/embed/qdPwTujQM6sgdDLDqsEvsD17780152021-11-26T19:14:23.773ZYES2021 Judging SessionsNOhttps://video.igem.org/w/8mimD9kkmE1iqUwz6cCpKZhttps://video.igem.org/lazy-static/thumbnails/ac9c55f8-8e0d-4ffc-93bc-2fde991b24dc.jpgTAS_Taipei: Judging Session (2021)TAS_Taipei: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/3b858abd-8438-40c2-a766-78c5ffb5f2e3/229f608a-1bb8-4b3c-805c-2b6722ec2954-master.m3u8https://video.igem.org/videos/embed/8mimD9kkmE1iqUwz6cCpKZ17320262021-11-26T19:22:38.983ZYES2021 Judging SessionsNOhttps://video.igem.org/w/dcW7dArsynZxxNLcb4jKzEhttps://video.igem.org/lazy-static/thumbnails/1567c15f-07cc-4d28-ad0e-077e286b036f.jpgHong_Kong_UCCKE: Judging Session (2021)Hong_Kong_UCCKE: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/62d830ac-783d-4606-9f4a-553591aaadac/521b6de6-aced-41af-8070-e3fb20e16df1-master.m3u8https://video.igem.org/videos/embed/dcW7dArsynZxxNLcb4jKzE16750162021-11-26T19:37:14.641ZYES2021 Judging SessionsNOhttps://video.igem.org/w/2ryVvi6EjTSsrdVZSh5GSyhttps://video.igem.org/lazy-static/thumbnails/544c0117-8822-47eb-8a0a-4f3c02efcfc3.jpgMichiganState: Judging Session (2021)MichiganState: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/0bab05a9-cfdf-49bf-8415-8e62c9917ab4/b0012bd3-2be2-4c28-963c-086f0d8921b8-master.m3u8https://video.igem.org/videos/embed/2ryVvi6EjTSsrdVZSh5GSy1527052021-11-26T19:41:50.349ZYES2021 Judging SessionsNOhttps://video.igem.org/w/kJQPTYSUKrdd6m6PFSMcRZhttps://video.igem.org/lazy-static/thumbnails/8705a8c6-4808-414b-a540-3bfa5328072b.jpgQdai: Judging Session (2021)Qdai: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/9fd8f67d-1707-4f96-83f8-33ac30b0dda7/c3eceed3-55eb-4aa2-8d2e-f1163ad1ddd3-master.m3u8https://video.igem.org/videos/embed/kJQPTYSUKrdd6m6PFSMcRZ17170102021-11-26T19:47:06.877ZYES2021 Judging SessionsNOhttps://video.igem.org/w/v3y8dKY5z2T8Z3qhEZjMf3https://video.igem.org/lazy-static/thumbnails/431abcd7-0d07-45d2-9d07-19f1852cf40b.jpgMIT_MAHE: Judging Session (2021)MIT_MAHE: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/eb344e5c-420a-4972-b74a-1401b13257a2/f2aae1ad-a2d7-42c6-b16f-a5ea1e602f2f-master.m3u8https://video.igem.org/videos/embed/v3y8dKY5z2T8Z3qhEZjMf316070102021-11-26T19:51:59.080ZYES2021 Judging SessionsNOhttps://video.igem.org/w/g5jJ7GgVX7p84YU6PHsAYEhttps://video.igem.org/lazy-static/thumbnails/3c6eb6f0-cf86-41c7-b64a-f3f132b54437.jpgNWU-CHINA-A: Judging Session (2021)NWU-CHINA-A: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/7a139869-eba4-45b2-ad39-66dad9f65ede/79304486-1bc2-4c1b-9746-706737b610b0-master.m3u8https://video.igem.org/videos/embed/g5jJ7GgVX7p84YU6PHsAYE16480282021-11-26T20:00:53.868ZYES2021 Judging SessionsNOhttps://video.igem.org/w/6RwY2EncegLiyNuHiMQ2E3https://video.igem.org/lazy-static/thumbnails/8a524773-d281-49ac-a59b-ff57c7769b01.jpgUSAFA: Judging Session (2021)USAFA: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/2f6838b5-088c-474c-8b0d-4d46c50800f2/de970135-a818-46cd-9a83-6c2bfb1d4787-master.m3u8https://video.igem.org/videos/embed/6RwY2EncegLiyNuHiMQ2E31428082021-11-26T20:05:21.323ZYES2021 Judging SessionsNOhttps://video.igem.org/w/vqzcoZrt985LHTA3MyUeU1https://video.igem.org/lazy-static/thumbnails/7b5ce25d-d815-437a-b5e9-7c5e4c7629ad.jpgRochester: Judging Session (2021)Rochester: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/f4fe2370-4d63-48cf-a3e4-610c3ba20b0b/2d32b538-1019-4702-8154-63d24576ab93-master.m3u8https://video.igem.org/videos/embed/wfEeTg6Lbf8LQGFdHs66At1857002021-11-27T00:49:25.321ZYES2021 Judging SessionsNOhttps://video.igem.org/w/wCLqeqNoajqWkRjMrN4Rt3https://video.igem.org/lazy-static/thumbnails/3eecdce1-b28e-49be-ad1e-b0ad5f654382.jpgFZU-China: Judging Session (2021)FZU-China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/f8144f17-7b71-45a0-9766-e9199db5fb3c/e36d59d4-2e9b-41fd-bfa3-d5d4ee1a6e4c-master.m3u8https://video.igem.org/videos/embed/wCLqeqNoajqWkRjMrN4Rt31433052021-11-27T01:06:46.139ZYES2021 Judging SessionsNOhttps://video.igem.org/w/133HnT9yKC2SC3CFoU7GGehttps://video.igem.org/lazy-static/thumbnails/491ace4b-cf26-4802-aa4e-5f222c101880.jpgNCKU_Tainan: Judging Session (2021)NCKU_Tainan: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/a7d34c19-d518-4d74-a9ed-259a85006f9c/c7fdee2d-2c41-481f-be42-2421feab9754-master.m3u8https://video.igem.org/videos/embed/mHYQM4yo7r2D4KvKeN8CRs1885002021-11-27T01:56:10.697ZYES2021 Judging SessionsNOhttps://video.igem.org/w/5Ymr3QPYG8vGG5Zma3BhQnhttps://video.igem.org/lazy-static/thumbnails/22791c2f-9974-4899-9acf-8c7336540101.jpgStuttgart: Judging Session (2021)Stuttgart: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/2842cc1f-525b-4045-887f-8a7fe608eced/4ae955fe-d7da-4f0c-ac97-1f5893988706-master.m3u8https://video.igem.org/videos/embed/5Ymr3QPYG8vGG5Zma3BhQn1719032021-11-27T02:01:33.240ZYES2021 Judging SessionsNOhttps://video.igem.org/w/fuXRoqYGLLwbMPpFe8teHnhttps://video.igem.org/lazy-static/thumbnails/a22c204f-f2ad-455d-ab0b-7027d7c398c2.jpgTU_Kaiserslautern: Judging Session (2021)TU_Kaiserslautern: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/fa340575-557d-47e6-951c-7014a2b0483e/7cd31e6e-5e71-4d06-a884-9b73d091e441-master.m3u8https://video.igem.org/videos/embed/wTYFkRaJNYaGiD8Pyc8Ei51671022021-11-27T03:06:35.519ZYES2021 Judging SessionsNOhttps://video.igem.org/w/kdkMEAyNUu1YXWwd277KBPhttps://video.igem.org/lazy-static/thumbnails/5ca5ad21-2ca9-4fa4-8eca-4ca6a3fa40bd.jpgFudan: Judging Session (2021)Fudan: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/9b96c110-872d-4878-b560-1703bfe4f019/041a1c84-8a12-48e6-8f08-48ba3cee9f7a-master.m3u8https://video.igem.org/videos/embed/kdkMEAyNUu1YXWwd277KBP15590132021-11-27T03:12:24.808ZYES2021 Judging SessionsNOhttps://video.igem.org/w/3anaGxLmo49cApyd65EHKqhttps://video.igem.org/lazy-static/thumbnails/4987a80d-8a88-41de-a267-c761bc09dd15.jpgUPF_Barcelona: Judging Session (2021)UPF_Barcelona: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/05c00e13-0e8d-4680-ae2b-e5c4fe18cdb0/648cb40c-430e-4c2d-b3ba-5eac01cb5d52-master.m3u8https://video.igem.org/videos/embed/1HbDqQDs6oJ6K9JtnhcmjU1582032021-11-27T03:37:31.058ZYES2021 Judging SessionsNOhttps://video.igem.org/w/9Lx1goixnjFNTFKBkVypV1https://video.igem.org/lazy-static/thumbnails/9e7f96b9-06d7-4c52-8aed-9615c54c711e.jpgCAU_China: Judging Session (2021)CAU_China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/4700f141-9737-416a-86d5-e7bff1ec11ae/ab1e3880-f053-4a28-b055-db6e36cb7334-master.m3u8https://video.igem.org/videos/embed/9Lx1goixnjFNTFKBkVypV116280192021-11-27T03:42:17.330ZYES2021 Judging SessionsNOhttps://video.igem.org/w/2FQaWAGJTndGCDF8UWtNSxhttps://video.igem.org/lazy-static/thumbnails/6b0d806a-237a-48c6-aef2-f3908e018fd0.jpgQHFZ: Judging Session (2021)QHFZ: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/6c559cfb-4510-4a5f-be5d-5da09940bd37/983bbdbf-71fe-4e75-9cd6-91f39de85515-master.m3u8https://video.igem.org/videos/embed/enUeFfzonJzZ2KvKKAueK62230162021-11-27T03:58:00.123ZYES2021 Judging SessionsNOhttps://video.igem.org/w/h1DRSKUyJst6QJQpcs58Z4https://video.igem.org/lazy-static/thumbnails/1bd5179d-faba-4df4-9692-fc2b5b47ec3c.jpgMissouri_Miners: Judging Session (2021)Missouri_Miners: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/81a98cf1-a161-4ee0-b8bf-1a0d6a2c30c9/0543926f-7024-419e-9eac-1e2d7dc1c05c-master.m3u8https://video.igem.org/videos/embed/h1DRSKUyJst6QJQpcs58Z41567002021-11-27T04:25:36.198ZYES2021 Judging SessionsNOhttps://video.igem.org/w/t8c9MqnXXZUbuMzmVXY12Chttps://video.igem.org/lazy-static/thumbnails/c9c44a58-2b72-4b10-9524-8585187ba063.jpgStony_Brook: Judging Session (2021)Stony_Brook: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/c246b6e6-86be-4012-b1ad-5e52d917cb20/1a54f430-79e3-4a75-8d73-bb46737887c6-master.m3u8https://video.igem.org/videos/embed/pZqxZaMA3TjC7vAFpgfqNm1662032021-11-27T09:05:42.644ZYES2021 Judging SessionsNOhttps://video.igem.org/w/qs6Vq892XhKKvJivHbxQB4https://video.igem.org/lazy-static/thumbnails/4f302554-0115-42cf-a92c-7fd2f9f3c88b.jpgUCAS-China: Judging Session (2021)UCAS-China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/c6005095-a67e-4739-b890-a4ad22aaea89/a6276f58-4967-4748-ba8a-9710a12ce24a-master.m3u8https://video.igem.org/videos/embed/qs6Vq892XhKKvJivHbxQB41573042021-11-27T09:20:11.484ZYES2021 Judging SessionsNOhttps://video.igem.org/w/qwfrwLH1JCT2Ja7TwN8oaMhttps://video.igem.org/lazy-static/thumbnails/1ba6d972-ade6-4641-b212-4bc153356e28.jpgUESTC-China: Judging Session (2021)UESTC-China: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/f1aee234-d8b4-49a1-8f00-5adbb3ced45f/583325b8-c190-43af-afe2-dd297552f02f-master.m3u8https://video.igem.org/videos/embed/vQXr65zD2NRMMjSdJxjinZ14610282021-11-27T10:03:24.378ZYES2021 Judging SessionsNOhttps://video.igem.org/w/2aWqa5URivqBoNwLt5wY2Shttps://video.igem.org/lazy-static/thumbnails/83bf2c61-c3e5-4b69-a5cb-87a2854ce6b7.jpgYiYe-China: Judging Session (2021)YiYe-China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/097c5e31-b126-47c4-b837-c61a75ed611c/337f26ac-254f-4a9c-aa3b-9d638fed9c90-master.m3u8https://video.igem.org/videos/embed/2aWqa5URivqBoNwLt5wY2S1560012021-11-27T10:16:08.016ZYES2021 Judging SessionsNOhttps://video.igem.org/w/mvzpXyh9cBRiNfJhzbio8Zhttps://video.igem.org/lazy-static/thumbnails/bdbf1cad-d57f-4865-bffb-7fbdcf968d82.jpgTongji_China: Judging Session (2021)Tongji_China: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/795ccd82-32e2-4d2f-b60f-bb47c09b9519/506214f3-8848-4fd3-a6b9-ca72e6c8aa0c-master.m3u8https://video.igem.org/videos/embed/fZd7HBt1SuMWeXUq4eJkoR1498072021-11-27T20:06:07.021ZYES2021 Judging SessionsNOhttps://video.igem.org/w/iYivRCLZwfHrkYXnsdyhd8https://video.igem.org/lazy-static/thumbnails/fccbe122-f661-4855-945c-9dc10f8ee4b5.jpgSZU-China: Judging Session (2021)SZU-China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/9187cd5c-5fc1-46cb-a974-7a0065c1ffbf/009cfa36-4cd2-4878-9499-3a1ab53340cf-master.m3u8https://video.igem.org/videos/embed/iYivRCLZwfHrkYXnsdyhd815640462021-11-27T21:55:24.153ZYES2021 Judging SessionsNOhttps://video.igem.org/w/aVma7dcCzVZgkg7YnTWRCdhttps://video.igem.org/lazy-static/thumbnails/bd715203-973e-4868-9bca-8f3a5081cf15.jpgPatras: Judging Session (2021)Patras: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/c438988f-f97a-4fc9-b812-630c16b803ec/77f6af14-3ad0-4e39-938c-ff3249603550-master.m3u8https://video.igem.org/videos/embed/qemrKNDt6pDVHuQeqhyLHS1533062021-11-28T07:30:28.553ZYES2021 Judging SessionsNOhttps://video.igem.org/w/kUHTUqrt83RWr2N3rTLzvThttps://video.igem.org/lazy-static/thumbnails/ce27778a-6049-4fd3-810a-1ca367c69939.jpgCTR_Alberta_Canada: Judging Session (2021)CTR_Alberta_Canada: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/a13a2114-e6ef-4666-b7a1-0d2789b8e899/b9915aca-fafb-4465-9d1d-217ca7ccbcb7-master.m3u8https://video.igem.org/videos/embed/kUHTUqrt83RWr2N3rTLzvT1505012021-11-28T07:41:00.725ZYES2021 Judging SessionsNOhttps://video.igem.org/w/w6QLm7pbgnuqjBfQRxiEZmhttps://video.igem.org/lazy-static/thumbnails/769e2620-019f-4264-bad7-a31a67da4f42.jpgRUM-UPRM: Judging Session (2021)RUM-UPRM: Judging Session 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(2021)https://static.igem.org/peertube/streaming-playlists/hls/9048fbd9-e0fc-4cbb-a712-3b190c267561/0b7d47f3-aeee-4d45-9073-16b9efd31c59-master.m3u8https://video.igem.org/videos/embed/iPobu6S2ZoFeDHj2bhhyQ215150112021-11-28T10:31:13.525ZYES2021 Judging SessionsNOhttps://video.igem.org/w/2Wcm1EgeSTwWxToEfsDyqihttps://video.igem.org/lazy-static/thumbnails/94fc135e-e079-4b5f-b858-2561e611dd91.jpgBJ101ID: Judging Session (2021)BJ101ID: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/0faa4b3a-5c0e-44c6-beed-e62b93f0f9a9/fdd8e1c4-beba-4c22-abc6-f0a84745321b-master.m3u8https://video.igem.org/videos/embed/2Wcm1EgeSTwWxToEfsDyqi1788022021-11-28T10:45:20.554ZYES2021 Judging SessionsNOhttps://video.igem.org/w/pUUDoCU9KnfDrcXkCQbYrnhttps://video.igem.org/lazy-static/thumbnails/0c353dd0-4fb6-4dbc-a544-dab5761b6179.jpgBUCT: Judging Session (2021)BUCT: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/c1a54f03-4e53-4bd4-98c7-ac52457809ef/bca4f34e-033d-42e0-b803-61198134c51d-master.m3u8https://video.igem.org/videos/embed/pUUDoCU9KnfDrcXkCQbYrn1482092021-11-28T10:57:55.761ZYES2021 Judging SessionsNOhttps://video.igem.org/w/gU8D4M3UBgCTZfUAkoVRb5https://video.igem.org/lazy-static/thumbnails/a7d7fe6c-243e-4899-97e5-a4ac8c0318e3.jpgSZTA_RMG_Szeged: Judging Session (2021)SZTA_RMG_Szeged: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/80c076b3-5617-4d9c-8b91-6898eb0af534/4c4c4df9-2d56-4f37-b11d-bef2ce9923b3-master.m3u8https://video.igem.org/videos/embed/gU8D4M3UBgCTZfUAkoVRb51947022021-11-28T11:10:16.590ZYES2021 Judging SessionsNOhttps://video.igem.org/w/8FLb8QbfriR3tdRTnSkSgnhttps://video.igem.org/lazy-static/thumbnails/cfced781-fc9f-4dd9-b302-cabe3b829855.jpgUParis_BME: Judging Session (2021)UParis_BME: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/3e3d3388-81cf-4318-a83e-62ff4b3423fb/d921d5a0-5718-4836-8075-41fafddd12ae-master.m3u8https://video.igem.org/videos/embed/8FLb8QbfriR3tdRTnSkSgn1590002021-11-28T11:23:28.375ZYES2021 Judging SessionsNOhttps://video.igem.org/w/sA6umcUiEp6iy89WYgyG7ihttps://video.igem.org/lazy-static/thumbnails/06ef32cc-09cd-42cc-8244-e3da487331a4.jpgAustin_UTexas: Judging Session (2021)Austin_UTexas: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/d75046a2-1f2f-4396-92e9-4d5f36975b7d/485c2b8c-24d0-4a14-b4f7-b543f92e06d4-master.m3u8https://video.igem.org/videos/embed/sA6umcUiEp6iy89WYgyG7i1588032021-11-28T11:36:41.859ZYES2021 Judging SessionsNOhttps://video.igem.org/w/2LinPE8vXwUYSQ62cXazq4https://video.igem.org/lazy-static/thumbnails/28188e9c-ab2a-443b-a87e-2ec4b7e4ae77.jpgGDSYZX: Judging Session (2021)GDSYZX: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/0e4892b1-d1b2-4b8e-93e2-9d7e1e287d8f/bd5bf040-34a1-45c3-8d74-4d71c2120df0-master.m3u8https://video.igem.org/videos/embed/2LinPE8vXwUYSQ62cXazq41614032021-11-28T11:47:05.547ZYES2021 Judging SessionsNOhttps://video.igem.org/w/wQ6UrJCoeafZVAXZkZFtThhttps://video.igem.org/lazy-static/thumbnails/faf2ca8b-8f2c-4177-8998-0892d6424aca.jpgBS_United_China: Judging Session (2021)BS_United_China: Judging Session (2021)https://static.igem.org/peertube/streaming-playlists/hls/f9a97fd5-9e9e-44e6-8867-c98d8eb6bbb2/45db13ba-50b9-43d1-95d6-d96b99a4261f-master.m3u8https://video.igem.org/videos/embed/wQ6UrJCoeafZVAXZkZFtTh1512062021-11-28T11:57:06.919ZYES2021 Judging SessionsNOhttps://video.igem.org/w/9JXXd7vgJHXRNgJcJ98ULFhttps://video.igem.org/lazy-static/thumbnails/0732ef9d-073d-4ed0-90fb-cd648808b5fe.jpgJilin_China: Judging Session (2021)Jilin_China: Judging Session 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From iGEM Project to StartupAn EPIC year - From iGEM Project to Startuphttps://static.igem.org/peertube/streaming-playlists/hls/d8e62e90-3003-4f34-b4b9-9c73e03c3a38/f8d1f977-af77-46e0-b653-0ce32b037531-master.m3u8https://video.igem.org/videos/embed/sMs8UzaJRUfiftQAVTR3bU2990112022-05-19T11:49:13.245ZYES2022 Opening Day KickoffNOhttps://video.igem.org/w/vGGkzaiKhkDfj983NpWGRbhttps://video.igem.org/lazy-static/thumbnails/7e8f3c0a-bc6e-4d47-9bb9-d2a910195daa.jpgPartner Special Offers, Wrap Up and Good Luck!Partner Special Offers, Wrap Up and Good Luck!https://static.igem.org/peertube/streaming-playlists/hls/f087a17a-4fd9-4bb8-8d6c-6992140ace64/8481c116-0349-41f3-9f59-dc55fd2d36bc-master.m3u8https://video.igem.org/videos/embed/vGGkzaiKhkDfj983NpWGRb313062022-05-19T11:49:20.677ZYES2022 Opening Day KickoffNOhttps://video.igem.org/w/eThNi84A5SqbrfHzpbrQbHhttps://video.igem.org/lazy-static/thumbnails/8d378d01-7b09-4770-85af-ab84220515a2.jpgHow to Build a Diverse and Inclusive iGEM Team and ProjectHow to Build a Diverse and Inclusive iGEM Team and Projecthttps://static.igem.org/peertube/streaming-playlists/hls/7070164c-7600-4eb3-bb5f-a7d503b537d5/f4671410-0948-4105-a034-9bca589efbf9-master.m3u8https://video.igem.org/videos/embed/eThNi84A5SqbrfHzpbrQbH9040132022-05-19T11:49:05.830ZYES2022 Opening Day KickoffNOhttps://video.igem.org/w/5BtWPLYHiWh9ibnmzkZ6EZhttps://video.igem.org/lazy-static/thumbnails/4e7c5052-3d79-4060-8873-07e817fe20c6.jpgPI Hub InvitationThrough the Global PI Hub, we seek to create a group of enthusiastic iGEM Community PI's interested in creating a space to listen to and encourage members who have supported their teams at iGEM with so much effort and still have so much to contribute to the global synthetic biology community. We would like to hear and address the great experiences that PIs have had through their opportunities in iGEM, as well as identify the wide and different profiles that make up this important community in synthetic biology. Additionally, we would like to follow them closely and invite them to inspire through their experience and work with hundreds of students that are constantly involved in iGEM around the world. We are planning to have more engaging activities with more iGEMers and iGEM stakeholders in different formats, including having an event for iGEM PIs at the Grand Jamboree. Finally, we would like to develop new resources that may be helpful in their involvement in iGEM and the synthetic biology community; provide a place to share their knowledge with others; and be part of the development of a wide variety of programs and initiatives of the iGEM Community. We invite all PIs to join this new initiative for this iGEM 2022 season. Learn more here: https://community.igem.org/initiatives/pi-hubhttps://static.igem.org/peertube/streaming-playlists/hls/2558cef6-d480-422f-a280-28d10c16fcc1/430b1b99-ead3-42e7-bbcf-24cebc65793b-master.m3u8https://video.igem.org/videos/embed/5BtWPLYHiWh9ibnmzkZ6EZ1060232022-06-07T00:08:10.875ZYESiGEM CommunityNOhttps://video.igem.org/w/n8q7n1VLY1FvSXfQMcqn2zhttps://video.igem.org/lazy-static/thumbnails/71900e84-a00f-4fbe-a5af-96be7c82c8fc.jpgAddress of iGEM President: Randy Rettberg - Synbio and Youth: Engineering a healthier planetAddress of iGEM President: Randy Rettberg - Synbio and Youth: Engineering a healthier planethttps://static.igem.org/peertube/streaming-playlists/hls/ab18f9f3-e1ef-4f89-bdbc-6dd0c8667adf/3f90e840-512b-403a-89c1-e9d33fedabf5-master.m3u8https://video.igem.org/videos/embed/n8q7n1VLY1FvSXfQMcqn2z4420222022-06-07T00:19:13.329ZYESiGEM CommunityNOhttps://video.igem.org/w/jVrLP26tP9GmxG5k7ds3SChttps://video.igem.org/lazy-static/thumbnails/d8e1b0eb-5fac-462e-bee2-d5062f37fb20.jpgKeynote 1: Geoffrey Lipman - Back to the Future… A Sustainability Plan for Our KidsKeynote 1: Back to the Future… A Sustainability Plan for Our Kids Speaker: Geoffrey Lipman, Co-Founder at The SUNx Program, President SUNx Malta; President, International Coalition of Tourism Partners; Former Assistant Secretary-General, UN World Tourism Organization. https://static.igem.org/peertube/streaming-playlists/hls/993acc72-3242-4065-a295-a1881c7c8b10/f3c0306a-a425-40af-b44d-0868142f3f6f-master.m3u8https://video.igem.org/videos/embed/jVrLP26tP9GmxG5k7ds3SC809042022-06-07T00:27:07.323ZYESiGEM CommunityNOhttps://video.igem.org/w/63wtZ5ivjKguu7iiW8CaHvhttps://video.igem.org/lazy-static/thumbnails/7995858e-f61c-4abf-bff7-5729f31398bc.jpgKeynote 2: Xinyu Liu - Create a sustainable future: What can synbio companies doKeynote 2: Create a sustainable future: What can synbio companies do Speaker: Xinyu Liu, iGEM HP Committee Member; Senior Community Manager, Bluepha; EPIC China https://static.igem.org/peertube/streaming-playlists/hls/28d7f761-ea12-49a7-abb9-aa6c3c46ab3b/e0714511-6acc-4ce0-bab7-f5117014da29-master.m3u8https://video.igem.org/videos/embed/63wtZ5ivjKguu7iiW8CaHv729052022-06-07T00:32:32.571ZYESiGEM CommunityNOhttps://video.igem.org/w/mqAGRaCrHirS16H4fDxVR5https://video.igem.org/lazy-static/thumbnails/d11ec114-2e45-49e7-8113-705813acc9d8.jpgKeynote 3: Jose Garza Martinez - Introduction to Governance & Policy Activity of iGEM CommunityKeynote 3: Introduction to Governance & Policy Activity of iGEM Community Speaker: Jose Garza Martinez, Chair of iGEM Community Governance & Policy Steering Committee; Research assistant and instructor, Tecnologico de Monterrey https://static.igem.org/peertube/streaming-playlists/hls/a56602cd-61e7-407f-986c-04b7ab58c6ba/1679f76d-bd43-4396-8c42-757a2062fcdf-master.m3u8https://video.igem.org/videos/embed/mqAGRaCrHirS16H4fDxVR53960142022-06-07T00:36:05.835ZYESiGEM CommunityNOhttps://video.igem.org/w/77PLdVfenFyA2VKjLGP91Qhttps://video.igem.org/lazy-static/thumbnails/9fe3993b-d4df-463c-b820-ac472de24b0b.jpgGroup 1: Food and AgricultureGroup 1: Food and Agriculture Coordinator: Cecila, iGEM Community Speakers: Erikan Baluku, Synbio Africa, Food and agriculture Syed Abbas Mehdi, R&D Operations Specialist of Future Fields (company), an alternative expression system to enable the cellular agriculture space by making these recombinant proteins inside fruitflies Alex Kyabarongo, How synthetic biology will influence food safety and agricultural applications in Africa, the next 50 years' insight Cecilia Gonzalez, iGEM Community, How Bolivia could benefit from synbio to produce food.https://static.igem.org/peertube/streaming-playlists/hls/318abaaf-9e2a-4cc0-b9ac-8a2370d353a8/2f1765fc-c1d6-421f-b585-255222da3918-master.m3u8https://video.igem.org/videos/embed/77PLdVfenFyA2VKjLGP91Q2270062022-06-07T00:54:42.508ZYESiGEM CommunityNOhttps://video.igem.org/w/sHbzZF1u25tPWEBPPoM4cJhttps://video.igem.org/lazy-static/thumbnails/e45a9f82-0bd3-4f67-b91d-5e1ceaae8356.jpgGroup 2: Biomanufacturing and Transformation of Traditional IndustryGroup 2: Biomanufacturing and Transformation of Traditional Industry Coordinator: Seoyun Lee, iGEM Community Speaker: Seoyun Lee, Daegu International School Student, iGEM Community Ambassador Program, Synthetic Biology's applications in the informatics industry https://static.igem.org/peertube/streaming-playlists/hls/d84d9fa7-a061-4eab-acdd-3f990f20061c/205c8e63-5636-4bd8-8bac-9f23b1531402-master.m3u8https://video.igem.org/videos/embed/sHbzZF1u25tPWEBPPoM4cJ19900102022-06-07T01:06:13.716ZYESiGEM CommunityNOhttps://video.igem.org/w/x46SMkpubHTp71Fw5Hfk39https://video.igem.org/lazy-static/thumbnails/6a81e78e-25ce-4f0a-a9d2-05b66a637281.jpgGroup 3: Environment and Pollution ReductionGroup 3: Environment and Pollution Reduction Coordinator: Cibele Zolnier, iGEM Community Speaker: Quanhui Ye, PhD of UIUC, Synbio and Environment Protection Hafsa Jarin Snigdha, Additional director, skill and development, community of biotechnology, Dhaka, Bangladesh; AMR gene in Biofilm and detection Brenda Jiménez López, iGEM Tec CEM, The negative effects of Disruptive Endocrine Chemicals on plants and human health https://static.igem.org/peertube/streaming-playlists/hls/fb7a2694-7b2f-42ab-88b4-23e732f48b68/f8efe4c4-2413-4d61-a5db-01cefbf900b1-master.m3u8https://video.igem.org/videos/embed/x46SMkpubHTp71Fw5Hfk3924190282022-06-07T01:29:37.480ZYESiGEM CommunityNOhttps://video.igem.org/w/vcxT9LYMni1MYrfUtowzHWhttps://video.igem.org/lazy-static/thumbnails/4a9d9f8d-fb96-4f68-ad4f-94b3c7206236.jpgiGEM World Environment Day & Stockholm+50 Event - Synthetic Biology: a Bold Choice for a Healthy ...iGEM World Environment Day & Stockholm+50 Event - Synthetic Biology: a Bold Choice for a Healthy Planet? 3 June 2022, 3:00 pm – 4:30 pm (Paris time), Webinar About this Event: iGEM hoste dan online seminar on June 3, 2022, 3:00 pm – 4:30 pm (Paris time) in honour of the World Environment Day and the 50th anniversary of 1972 United Nations Conference on the Environment. The 1972 United Nations Conference on the Environment in Stockholm was the first world conference to make the Environment a significant issue. This year is the 50th anniversary of that event. The United Nations will convene another meeting to draw on 50 years of multilateral environmental action to achieve the bold and urgent action needed to secure a better future on a healthy planet. Synthetic biology and global youth are the two significant factors to shape the future and secure a healthy planet for the prosperity of all. Many iGEM alumni have done or are now doing projects to achieve that goal. We hope more youth could understand more about this historical event and envision synbio's role in protecting this planet for the next 50 years.https://static.igem.org/peertube/streaming-playlists/hls/ec75d9bd-0381-4cf9-a1be-b3785eb15814/97f5bd40-ecdb-41f3-9b40-0e95d05614b4-master.m3u8https://video.igem.org/videos/embed/vcxT9LYMni1MYrfUtowzHW37280152022-06-07T03:13:37.683ZYESiGEM CommunityNOhttps://video.igem.org/w/kApjCzdAwSH2hmf7DwvUHnhttps://video.igem.org/lazy-static/thumbnails/cf5262d5-ac10-4a83-9f49-2849d47072f8.jpgGroup 4: Biodiversity and BiosafetyGroup 4: Biodiversity and Biosafety Coordinator: Jose, iGEM Community Speaker: Elicana Nduhuura, Synbio Africa, Role of Students in Dual Use Research & Synthetic Biology, Claudia Angélica García Alonso, iGEM Tec CEM, To create an efficient selection marker to replace the use of antibiotics. Songlin Shi, SUSTech, iGEM Community Openscience Steering Group, Bioethics in Biodiversity and Biosafetyhttps://static.igem.org/peertube/streaming-playlists/hls/9eab4b80-8b6b-454e-9ae8-432b90ccebb7/ff201aa1-9fe4-4e95-98c6-d15a230d96af-master.m3u8https://video.igem.org/videos/embed/kApjCzdAwSH2hmf7DwvUHn2238042022-06-07T13:06:23.189ZYESiGEM CommunityNOhttps://video.igem.org/w/49Pf1fXRMHswwWRkPwGxpShttps://video.igem.org/lazy-static/thumbnails/ad8a8109-48be-4a8d-a484-29eb991252a6.jpgBeckman Coulter - Echo 525 Normalization and Pooling AnimationBeckman Coulter - Echo 525 Normalization and Pooling Animationhttps://static.igem.org/peertube/streaming-playlists/hls/19867acf-09c2-4440-b1ec-0cc0b1354684/7637af32-3e3d-4e6a-9470-33ff791cfb64-master.m3u8https://video.igem.org/videos/embed/49Pf1fXRMHswwWRkPwGxpS930672022-06-09T12:48:56.718ZanimationsponsorsbeckmanYESiGEM FoundationNOhttps://video.igem.org/w/bJWXNf7uKVeXtCVGfDzKVRhttps://video.igem.org/lazy-static/thumbnails/870e953c-8ad9-431e-ad4c-59f5678b8dc0.jpgBeckman Coulter - Use Tips WiselyBeckman Coulter - Use Tips Wiselyhttps://static.igem.org/peertube/streaming-playlists/hls/56fa7f19-f240-438f-8ef7-6d7f50c0aef7/df09ee0b-e8cc-42ea-adb5-ce1cec24c0e5-master.m3u8https://video.igem.org/videos/embed/bJWXNf7uKVeXtCVGfDzKVR10004902022-06-13T11:52:56.985ZbeckmansponsorssponsorYESiGEM FoundationNOhttps://video.igem.org/w/hWY4QBPyRKKK4DxjjXxj2phttps://video.igem.org/lazy-static/thumbnails/2b45c633-8281-45c8-b265-ee03837d96aa.jpgBeckman Coulter - EMnetik and Column side by sideBeckman Coulter - EMnetik and Column side by sidehttps://static.igem.org/peertube/streaming-playlists/hls/893eef24-5eb9-4c97-b44d-ec6b5a6e4861/06410e2d-8f2a-416f-8506-0f6a93bb652e-master.m3u8https://video.igem.org/videos/embed/hWY4QBPyRKKK4DxjjXxj2p2550132022-06-13T15:45:41.027ZsponsorssponsorbeckmanYESiGEM FoundationNOhttps://video.igem.org/w/tssKGm7yfEnC13jBoYokLyhttps://video.igem.org/lazy-static/thumbnails/2c1e8060-295c-4038-8d64-2eaf8c584213.jpg#1 Hacking iGEM - Human PracticesHacking iGEM: How to decode the competition - Human Practices: June 18th, 14h UTC The iGEM Human Practices Committee works on creating a framework that helps iGEMers become reflective, responsive and responsible practitioners. Join them in this session to learn more and clarify frequently asked questions about HP aspects of the competition. Yuhan Bao - HQ Liaison, Human Practices Program Officer Matsuri Rojano - HP Committee member Maria Mercedes Roca - HP Committee member More information: https://community.igem.org/projects/hacking-igem/https://static.igem.org/peertube/streaming-playlists/hls/de5891b6-8acc-4a17-9e72-85a46692ec34/7c3a2ae0-ea83-43b6-9f14-7eb6d65c7cf5-master.m3u8https://video.igem.org/videos/embed/tssKGm7yfEnC13jBoYokLy426502432022-06-19T23:14:29.383ZYESiGEM CommunityNOhttps://video.igem.org/w/bkv7jUNvniKCK5EjXcBiqmhttps://video.igem.org/lazy-static/thumbnails/c04836b2-0cbb-4052-91a3-30a791f1a3c0.jpgFrom Founding High School iGEM Team to Getting into Emory: Alumni Talk with Richard HouRichard Hou is an incoming freshman at Emory University(accepted in ED1). He participated in iGEM as the team leader of THIS_China in 2021. He is going to share about how iGEM inspired him as a person and influenced his college application. He will also offer some tips on how to mention the iGEM Competition experience in your supplemental essay, along with how to apply to Emory specifically. iGEM Community.https://static.igem.org/peertube/streaming-playlists/hls/53b47513-acb9-462d-88b8-af313c7546f0/c8f4590a-3350-41d2-afae-26492759d010-master.m3u8https://video.igem.org/videos/embed/bkv7jUNvniKCK5EjXcBiqm31330342022-06-20T00:09:48.488ZHigh SchooliGEM CommunityUndergraduate AdmissionYESiGEM CommunityNOhttps://video.igem.org/w/eMsKohbgRrgiV7J6vE6jShhttps://video.igem.org/lazy-static/thumbnails/c1ad5188-77c3-4550-98ff-4457057cdd48.jpgOvercoming Obstacles and Getting into Undergrad Programs in US: Alumni Talk with Annika ShiAnnika is an incoming freshman at UNC Chapel Hill majoring in Biology(BS). She was the only student applying to universities abroad in her school, her GPA was capped due to this, and the domestic curriculum they studied at school put her at a disadvantage when applying. She is going to share how she overcame the obstacles in high school and college application, and offer her point of view on how to choose schools to apply to for Bioengineering or Biomedical Engineering. Annika was rejected in ED1 and ED2, she was accepted in RD1 and RD2 by UNC (Bio), Case Western (BME), Barnard (Bio), Brandeis (Bio), Brown (Bio), UCD (Physical Science), UCSB（pre-aquatic bio), Minerva, Utoronto (Bio & Computer Engineering)https://static.igem.org/peertube/streaming-playlists/hls/6f9fc19b-0777-464b-ac11-096f718e8a74/e56e7583-09d0-435d-a0af-236014045d9d-master.m3u8https://video.igem.org/videos/embed/eMsKohbgRrgiV7J6vE6jSh28460292022-06-20T00:43:23.939ZiGEM CommunityHigh SchoolUndergraduate AdmissionsYESiGEM CommunityNOhttps://video.igem.org/w/hAv6Etv1iGU16zqBjhAfMJhttps://video.igem.org/lazy-static/thumbnails/1c5797ec-674b-42c1-8668-49e42a10e5c8.jpgThe Sixth International InterLaboratory Measurement Study - How, what, whenReliable and repeatable measurement is a key component of all engineering disciplines. Through previous InterLab studies, the Engineering Committee – with the help of many iGEM teams – has developed a robust measurement procedure for green fluorescent protein (GFP) and for cell density measurements. This year, we will extend our calibration from a one-color calibration (green) to multi-color calibrations (green-red-blue)! In this webinar we will give an introduction into the purpose and outcomes of the Interlab study series as well as detailed instructions on how to participate and complete the 2022 Interlab study. Join us in making synthetic biology measurements more reliable and interchangeable!https://static.igem.org/peertube/streaming-playlists/hls/86637055-32c6-4267-b3e3-09b3d318aba4/d99e2f2a-e129-446f-b40a-80e9ffeb3a12-master.m3u8https://video.igem.org/videos/embed/hAv6Etv1iGU16zqBjhAfMJ260101212022-06-24T15:19:47.573ZYESiGEM WebinarsNOhttps://video.igem.org/w/5fbYTyHa3R2FrUqdRXg4KKhttps://video.igem.org/lazy-static/thumbnails/2a47ceac-7c1e-4a94-b95c-4ab065d958d3.jpgCreating SynBio Games, Comics and Getting into Oxford: Alumni Talk with Jane LiuJane is an incoming freshman at Oxford University majoring in Biology. Her high school provides an IB curriculum and she’s really familiar with applying to universities in the UK. She’s also really good at drawing, she made synbio comic books for middle school students when she participated in iGEM in 2020.https://static.igem.org/peertube/streaming-playlists/hls/225fbc0f-29ec-41d7-9734-a2340070e4bd/79041c16-8630-4c4a-adf6-c1947e9a0d64-master.m3u8https://video.igem.org/videos/embed/5fbYTyHa3R2FrUqdRXg4KK13890462022-06-27T11:51:45.157ZiGEM CommunityHigh SchoolUndergraduate AdmissionsYESiGEM CommunityNOhttps://video.igem.org/w/wHTPEX1QswvcB8h7UR3C1Ghttps://video.igem.org/lazy-static/thumbnails/af7b8b38-a732-42a1-9f29-675438ea2d57.jpgiGEM Project Ideation and Getting StartedHow do you get started and build a good iGEM project? In this live session we will discuss the overall timeline for an iGEM project and what makes for a good iGEM project. After that we will discuss strategies you can use to identify ideas and build those ideas into a foundation for your team’s project in the iGEM competition.https://static.igem.org/peertube/streaming-playlists/hls/f8cb973c-5538-4a77-9477-cdd0f8572898/54d9013b-21b8-4adc-90eb-0bc833142fd8-master.m3u8https://video.igem.org/videos/embed/wHTPEX1QswvcB8h7UR3C1G352804582022-06-27T15:30:24.819Zengineering webinarwebinarYESiGEM WebinarsNOhttps://video.igem.org/w/bimcyH6hu47iRJmJ894QzWhttps://video.igem.org/lazy-static/thumbnails/8481683c-a656-4b91-8932-0ca94c62aba5.jpgMaking GitHub Work for YouThis webinar provides an overview of GitHub, the distributed version control platform, and explains how members of the iGEM community can take advantage of it. Using examples and practical “how-to” cases, the presentation will describe what GitHub is, how it functions, and how iGEM is making use of it.https://static.igem.org/peertube/streaming-playlists/hls/53677a9f-ae55-4ba2-8b25-06ce0bf9ad48/889fe2a9-c933-49da-9971-3ad02783b520-master.m3u8https://video.igem.org/videos/embed/bimcyH6hu47iRJmJ894QzW33680862022-07-01T09:38:39.423Zengineeringgithubengineering webinarYESiGEM WebinarsNOhttps://video.igem.org/w/8WkwodTbPcB9E9cCjyAiLihttps://video.igem.org/lazy-static/thumbnails/d76c2b7b-5055-40c5-9a47-378f2ce2bda2.jpg#2 Hacking iGEM - GitLabThe Team Wiki is a key deliverable for the iGEM Competition and will now be hosted on GitLab. Join this session to learn the basics about coding on this platform and other best practices to ensure a successful document of your project. Kevin Castro Fuentes - iGEM alumni and Software Development Engineer II at Amazon More information: https://community.igem.org/projects/hacking-igem/ Hacking iGEM: How to decode the competition - GitLab: July 10th, 14h UTChttps://static.igem.org/peertube/streaming-playlists/hls/40462a8b-f873-45d7-9aca-43af1ec90a7d/c9f3b438-2cfd-4d11-8a51-43b01a1b93bf-master.m3u8https://video.igem.org/videos/embed/8WkwodTbPcB9E9cCjyAiLi330904192022-07-10T15:10:12.586ZYESiGEM CommunityNOhttps://video.igem.org/w/jfVVQUPD4NmP2cMNJR9KMdhttps://video.igem.org/lazy-static/thumbnails/6655cb25-9b27-408a-a85e-2e3a09212b3b.jpgWorking with the Open Yeast Collection, an IntroductionThe Open Yeast Collection is a foundational and enabling framework for contributing to the creation of an open, sustainable and equitable bioeconomy. More specifically the Open Yeast Collection permits the building of modular plasmids using Golden Gate Assembly from free, reusable and redistributable genetic parts with the goal of genetically modifying Saccharomyces cerevisiae or for the production of heterologous proteins such as enzymes in Pichia pastoris (Komagataella pastoris). The plasmids can be used for basic education, research or for building multi-enzyme metabolic pathways to create a wide variety of natural/commodity chemicals or fine and specialized chemicals such as pharmaceuticals. The Open Yeast Collection is distributed by the BioBricks Foundation and has been included in the 2022 iGEM Distribution. In this webinar you will learn what the Open Yeast Collection is and how to work with it to accomplish your goals. You will learn what the collection provides and what you have to bring to the table to create solutions to your goals. Many of the concepts in this webinar also apply to working with the Open Bioeconomy Lab’s Open Enzyme Collection, Open Reporters and E. coli Protein Expression Kit, also included in the 2022 iGEM Distribution. This webinar is suitable for all participants in the iGEM competition.https://static.igem.org/peertube/streaming-playlists/hls/93da24a7-27b4-4195-8ed4-195011b4f5da/e6f0aa3f-1b6f-4272-8873-035642800292-master.m3u8https://video.igem.org/videos/embed/jfVVQUPD4NmP2cMNJR9KMd301701522022-07-11T13:43:01.744Zengineering webinarswebinarsYESiGEM WebinarsNOhttps://video.igem.org/w/nPrjzXYqVpAxRjCRCx4Mi9https://video.igem.org/lazy-static/thumbnails/9e53cf01-7e28-41ee-99fb-ebf434404d6b.jpgModeling for SynBio: from ODEs to Gene expressionIn this Modeling Webinar we will go from ODEs (ordinary differential equations) and the law of mass action to Hill functions, their derivation, and how to use them to model the regulation of gene expression and inducible promoters. Additionally, we will explore Hill functions and explain the effects of parameters on activators, repressors, hybrid promoters, and the corresponding expression levels of GFP or any other reporter gene.https://static.igem.org/peertube/streaming-playlists/hls/b0af792b-e895-45e3-8d54-cbf5a09f755e/b72e9e02-04a9-466a-a0b8-27b8725f5a04-master.m3u8https://video.igem.org/videos/embed/nPrjzXYqVpAxRjCRCx4Mi9344904292022-07-14T14:39:25.804Zengineering webinarYESiGEM WebinarsNOhttps://video.igem.org/w/cLvSbGN16qfbpcqEp26xeQhttps://video.igem.org/lazy-static/thumbnails/a4133618-3608-4934-aab0-db906a98c52f.jpgAfricaOSH - iGEM WebinarThis event is led by the Ambassadors to Africa in collaboration with Africa Open Science Hardware (AfricaOSH). The aim of is to introduce the iGEM Community activities to AfricaOSH and its communities and partners as well as the rest of the African community. Equally, the event is an opportunity for iGEM Community members to learn about AfricaOSH's activities.https://static.igem.org/peertube/streaming-playlists/hls/5f4ba800-4c7a-4097-8430-3e0de1e1be36/8484f8a5-c9e6-4406-adf6-8222d7aa2a58-master.m3u8https://video.igem.org/videos/embed/cLvSbGN16qfbpcqEp26xeQ50950232022-07-22T11:34:33.963ZYESiGEM CommunityNOhttps://video.igem.org/w/cQhMhP6cfxswLcADCKdt23https://video.igem.org/lazy-static/thumbnails/6b6d3f8d-dbfe-4101-b8c8-4a5b8d0c5296.jpgModeling and Analysis of Synthetic Biology Systems with SimBiology and MATLABMathematical modeling guides the rational design of genetic modifications and enables synthetic biologists to better analyze and predict system behavior prior to fabrication. Modeling is an important part of synthetic biology and the iGEM Competition. This workshop, presented by our Partner MathWorks, provides iGEM teams with an introduction to modeling, simulation and analysis with MATLAB and SimBiology using an example from synthetic biology literature. MathWorks is a Partner Sponsor of the 2022 iGEM Competition. Learn more about MathWorks’ special offer for iGEM teams: https://competition.igem.org/sponsorships/special-offershttps://static.igem.org/peertube/streaming-playlists/hls/5fd2915a-d25c-4cab-a5c6-9b7307e30058/99948a35-24a8-4594-8269-e114bbbf0ddf-master.m3u8https://video.igem.org/videos/embed/cQhMhP6cfxswLcADCKdt23316402982022-07-21T16:01:13.009ZwebinarsponsorYESiGEM WebinarsNOhttps://video.igem.org/w/1kzrfTeJtzxMWunSkXSwK4https://video.igem.org/lazy-static/thumbnails/d8569e1e-1a40-481a-911d-2bb930b70837.jpg#3 Hacking iGEM - Entrepreneurship (EPIC)The iGEM Entrepreneurship Program Innovation Community (EPIC) was founded keeping in mind the largely untapped potential of iGEM Alumni. Join this session to learn about the activities that guide a cohort of select iGEM Alumni teams along their entrepreneurial journey. Speaker: Vasiliki Kavvatha - Head of the EMEA Region at iGEM EPIC More information: https://community.igem.org/projects/hacking-igem/ Hacking iGEM: How to decode the competition - Entrepreneurship (EPIC): August 13th, 14h UTChttps://static.igem.org/peertube/streaming-playlists/hls/02bbbca9-a585-498b-a1da-e862134e0219/594b2841-1c60-44a6-ae01-3dc042d6f94a-master.m3u8https://video.igem.org/videos/embed/1kzrfTeJtzxMWunSkXSwK431930302022-08-13T15:10:27.754ZYESiGEM CommunityNOhttps://video.igem.org/w/2mwvN2Hs4FTzEiThFN9EK3https://video.igem.org/lazy-static/thumbnails/07eccb91-d4c2-4489-8caf-50171684c60f.jpgPre-event - WiSTEM Entrepreneurship Bootcamp 2022The Women Entrepreneurship Bootcamp aims to encourage women to join SynBio entrepreneurship by building participants’ confidence in their start-up ideas, providing information on funding and pitching and discussing inspirational work by current female entrepreneurs. Learn more at: https://community.igem.org/events/women-entrepreneurship-bootcamp/https://static.igem.org/peertube/streaming-playlists/hls/0af6d19b-e953-4c6e-831a-0128c1d8a718/9e4427d6-4088-465a-821e-8b7a2c4ff6d5-master.m3u8https://video.igem.org/videos/embed/2mwvN2Hs4FTzEiThFN9EK339940112022-08-11T19:05:11.578ZYESiGEM CommunityNOhttps://video.igem.org/w/uKWf5z7jPRbsA47x2dirTGhttps://video.igem.org/lazy-static/thumbnails/9ab3786d-dc5f-4513-9e71-7d8b55d78be0.jpgLet's ENGAGE: iGEM Community Opportunities 2022Let's ENGAGE: iGEM Community Opportunities 2022https://static.igem.org/peertube/streaming-playlists/hls/e8e24af9-2f2d-4e9e-b6f2-ab1d1f832302/2f38f6ba-65a9-4bd8-93d9-5effdc1eefc6-master.m3u8https://video.igem.org/videos/embed/uKWf5z7jPRbsA47x2dirTG27930142022-08-18T13:21:07.761ZENGAGEYESiGEM AcademyNOhttps://video.igem.org/w/iRVdjVs9zbgQMCo2KXVxCHhttps://video.igem.org/lazy-static/thumbnails/d6f1cbc2-808a-43b3-8084-6a9662830b9f.jpgAustin_UTexas: ARROWE: ADP1 Recombination and Recognition of WNS Environmental DNA (2022) - Proje...**Title:** ARROWE: ADP1 Recombination and Recognition of WNS Environmental DNA **Description:** Every year, millions of bats around the world are killed by White Nose Syndrome. Detection of WNS efficiently remains a challenge, so this year’s UT Austin iGEM team presents ARROWE: ADP1 Recombination and Recognition of WNS eDNA. ARROWE is an effective WNS biosensor- it takes advantage of Acinetobacter bayli‘s ability to take up environmental DNA and refines its chassis, providing a useful tool for synthetic biologists and conservationists alike. [Wiki](https://2022.igem.wiki/austin-utexas)https://static.igem.org/peertube/streaming-playlists/hls/90a39867-a05b-421b-b322-5734cc19d585/9b52944e-18e9-4bac-b13f-424757853eea-master.m3u8https://video.igem.org/videos/embed/iRVdjVs9zbgQMCo2KXVxCH10502882022-08-26T19:52:13.138ZFoundataionalAdvanceDNADetectionBiosensorBatsYES2022 Project PromotionsNOhttps://video.igem.org/w/2UwoyKigGGue4UTzkLWd9Xhttps://video.igem.org/lazy-static/thumbnails/93f7d749-90d8-4337-b4ca-93a996319158.jpgBNU-China: Cannabis "Vaccine" (2022) - Project Promotion [English]**Title:** Cannabis "Vaccine" **Description:** In 2020, the United Nations officially recognized the medical use of cannabis. However, the booming usage of cannabis leading by legalization has created an extraordinarily high risk of drug leakage. To tackle this urgent problem, we have delved into the mechanisms of cannabis ingestion and degradation in humans. We found that the main psychoactive compound found in the cannabis plant is Δ9-tetrahydrocannabinol (THC). The hydroxylation of THC to 11-hydroxy-Δ9-tetrahydrocannabinol (11-OH-THC) and the further enzymatic oxidation to 11-nor-9-carboxy-Δ9-tetrahydrocannabinol (THC-COOH) in the liver produce the most relevant metabolites. Therefore, We engineered the E.coli Nissle1917 to secrete enzymes to degrade THC and reporter protein only when it senses THC in the intestinal tract to achieve the core goal of our project. And the THC-sensing system is modified from PmrCAB system. While our project successfully reduces the addiction of cannabis, we expect to provide a secure system for future cannabis exploration so as to broaden the application prospects of cannabis. [Wiki](https://2022.igem.wiki/bnu-china)https://static.igem.org/peertube/streaming-playlists/hls/0f6e8ae8-c3ed-4d99-983b-8beb133d9987/f6e4abe2-74f8-4786-ae24-9c0b0455d23c-master.m3u8https://video.igem.org/videos/embed/2UwoyKigGGue4UTzkLWd9X1200712022-08-27T07:05:23.946ZTherapeuticsTHCProbioticsCannabisIntestineYES2022 Project PromotionsNOhttps://video.igem.org/w/2H9JCe3Fk2b7rvgNK9KPs9https://video.igem.org/lazy-static/thumbnails/45151d43-2983-4218-b538-55c6992f2c2b.jpgHBUT-China: Alchemy of an Antioxidant (2022) - Project Promotion [English]**Title:** Alchemy of an Antioxidant **Description:** Our students are presented with a challenge: produce the natural antioxidant ergothioneine. But is the old method of growing fungi going to be fast enough, or reliable enough? The students have an idea for a better way... [Wiki](https://2022.igem.wiki/hbut-china)https://static.igem.org/peertube/streaming-playlists/hls/0dd8042c-b6be-4815-8ce4-c8041f5bfaa0/5a5b297e-c5a0-417b-a444-5737effbd39f-master.m3u8https://video.igem.org/videos/embed/2H9JCe3Fk2b7rvgNK9KPs912002492022-08-27T08:49:01.330ZAntioxidantErgothioneineHealthBenefitsSyntheticBiologyYES2022 Project PromotionsNOhttps://video.igem.org/w/2DaRHQ65W9sH3FCXhYgkjYhttps://video.igem.org/lazy-static/thumbnails/95dcae10-e6b3-41d3-9da9-8102fbf13c8a.jpgNanjing-China: Silvanela (2022) - Project Promotion [English]**Title:** Silvanela **Description:** The low power generation of the microbial fuel cell(MFC) limits its application. We used synthetic biology techniques to endow Shewanella with the ability to bind silver ions. The engineered Shewanella bacteria are used to construct a microbial fuel cell, and silver ions are converted into silver nanoparticles to improve power generation efficiency. [Wiki](https://2022.igem.wiki/nanjing-china)https://static.igem.org/peertube/streaming-playlists/hls/0d49bb9f-8fff-41f8-b020-311847139c90/1d9dab1a-c614-4db5-89a0-0304d6e6bd02-master.m3u8https://video.igem.org/videos/embed/2DaRHQ65W9sH3FCXhYgkjY11501762022-08-27T13:26:30.784ZEnergyMFCSilverShewanellaYES2022 Project PromotionsNOhttps://video.igem.org/w/qrQxudwVQ9KeMC5ttCkKHwhttps://video.igem.org/lazy-static/thumbnails/fdb583bc-0cf8-4a57-8bbf-f6ac207594f5.jpgXJTU-China: Our goal: an environmentally friendly herbicide product and a way to... (2022) - Proj...**Title:** Our goal: an environmentally friendly herbicide product and a way to use it **Description:** Nowadays chemical herbicides have been widely used in agricultural production and life, is essential for global agricultural production, increasing crop yields to quantify the influence of herbicide is just on the one hand: the increase of production promoted many indirect economic effect. However, the rational use of herbicides has never left the attention of the society: improving food safety, life quality, and protecting biodiversity. If chemical herbicides are used improperly, they will bring harm to soil and crops. In addition, the chemical synthesis of herbicides can pollute the environment. In order to solve the above problems, we construct the plasmid Ⅱand plasmid Ⅵ: under the induction of blue-ray glucose is converted into a precursor of the synthesis of herbicide by plasmid Ⅱ; the precursor to the herbicide we need, at the same time will be synthesized herbicide and on the basis of it to produce EPS, used for not only water but also prevent them from degradation to ensure the content of herbicide by plasmidⅥ. However, engineered bacterium don't lysis until the sun shines, when weeds multiply and the temperature rises, then release herbicides and EPS, and according to the reference data, it will not completely kill the bacterium, but have some bacterium surviving, to realize circular regulation and production. [Wiki](https://2022.igem.wiki/xjtu-china)https://static.igem.org/peertube/streaming-playlists/hls/c5f6d673-4806-476e-bee6-1a6cecf2624c/f10ddc30-6f9a-4ed2-85b2-386648038b56-master.m3u8https://video.igem.org/videos/embed/qrQxudwVQ9KeMC5ttCkKHw1100732022-08-28T03:17:40.476ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ryMCD1Xwn9DiLS5vdYG7qChttps://video.igem.org/lazy-static/thumbnails/681a2a9d-8375-46cf-891a-acd64a51964b.jpgTongji_China: Bplant (2022) - Project Promotion [English]**Title:** Bplant **Description:** Bromelain has a variety of effects, which can improve the conversion rate of fodder and is a potential alternative for antibiotics. Bromelain has great application potential in feed processing, but the traditional production process has issues of inefficiency, unstable source and low enzyme activity. Bplant will change the traditional technique to establish a Bacillus subtilis bioplant to produce bromelain with high activity via directed evolution. [Wiki](https://2022.igem.wiki/tongji-china)https://static.igem.org/peertube/streaming-playlists/hls/cf08637f-df91-4eaf-9149-dec370f97eec/ab18189e-f898-43d4-98e3-62d91db74d24-master.m3u8https://video.igem.org/videos/embed/ryMCD1Xwn9DiLS5vdYG7qC1170382022-08-28T08:29:26.301ZManufacturingYES2022 Project PromotionsNOhttps://video.igem.org/w/9W13wFCxUkqqvDGZRELGiohttps://video.igem.org/lazy-static/thumbnails/5f773ab2-f15e-4afc-9538-8f1fb6b1dc83.jpgGO_Paris-Saclay: CO2CURE (2022) - Project Promotion [English]**Title:** CO2CURE **Description:** Synthetic biology for bioproduction is a rapidly booming field and a promising option for growing industries. However, the majority of strains used in this field are not autotrophic, which means that they cannot fix carbon dioxide (CO2) from the atmosphere. As it turns out, CO2 is the most common greenhouse gas that overheats our planet. Here we present the proof of concept for making such strains autotrophic by implementing the Calvin cycle. We choose strains of Streptomyces, a genus of bacteria as an example which produce antibiotics along with other highly valuable molecules and specialized metabolites used in laboratories. Here, in the CO2CURE project, we propose to produce antibiotics from atmospheric CO2, leading to the recycling of CO2 to produce antibiotics more ecologically and cost-effectively. In this project, we introduce new chassis to the iGEM competition that belong to the genus Streptomyces which are multicellular bacteria. They have linear genomes that are very GCrich (72%) and are compartmentalized, with a central compartment that is highly expressed and silent terminal ones. To turn any Streptomyces into autotrophs, we began by transforming the genes encoding RubisCO (Ribulose-1,5-bisphosphate Carboxylase Oxygenase) and PRK (Phosphoribulokinase), as these genes represent a huge part of the Calvin cycle. We have developed a genetic tool for the insertion of rubisco and prk genes into the Streptomyces genome. Furthermore, to obtain antibiotic production in the minimal medium, we had to repress the expression of the lsr2a gene which is an exogenous silencer. This silencer represses the gene clusters such as SMBGC s (specialized metabolite biosynthetic gene clusters) and stops biosynthesis of different metabolites in Streptomyces. We have engineered genetic tools via the Crispr-dCas9 system to switch off lsr2a and force antibiotic production in a low carbon environment. We took advantage of the same methodology ...https://static.igem.org/peertube/streaming-playlists/hls/48534cbb-37c5-421f-905c-776fdeecd3b0/e9d5518b-9de7-43a9-83ac-10d2ed485336-master.m3u8https://video.igem.org/videos/embed/9W13wFCxUkqqvDGZRELGio11901272022-08-28T13:16:17.597ZAntibioticsCarbonFixationCalvinCycleCO2FixationBioproductionYES2022 Project PromotionsNOhttps://video.igem.org/w/b7MemZTm5qKk1iNKgjFXGghttps://video.igem.org/lazy-static/thumbnails/77d44a1a-f1a5-4885-9f02-c476a511f776.jpgYiYe-China: Detecting Dysregulation of RNA Splicing for Myelodysplastic Syndrome... (2022) - Proj...**Title:** Detecting Dysregulation of RNA Splicing for Myelodysplastic Syndromes Diagnosis Using RNA Splicing Sensors **Description:** Myelodysplastic syndromes (MDS) are the commonest hematologic malignancies in the elderly. Now, the accurate diagnosis of MDS still heavily rely on the experienced hematologists’ morphological evaluation of peripheral blood and bone marrow cells. Therefore, it is urgent to develop more effective detection methods for MDS diagnosis. Aberrant splicing is strongly associated with MDS. Many RNA splicing-related genes have been found to mutate in around 50% of MDS patients, suggesting analysis of RNA splicing status should be used for diagnosis of MDS. It is reported that exons of mitogen-activated protein kinase kinase kinase 7 (MAP3K7) and zinc finger protein 91 (ZFN91) were skipped in MDS patients. This inspired us of constructing sensors fused the skipping exons into the plasmids containing reporter, which monitors the alteration of RNA splicing in cells. Our project provides a simple and effective method for early diagnosis and prediction of prognosis in MDS in the future. [Wiki](https://2022.igem.wiki/yiye-china)https://static.igem.org/peertube/streaming-playlists/hls/51edb932-d542-48ec-a4c6-ae12bd916c33/54acee9c-ec86-41c2-b469-d70caf89f099-master.m3u8https://video.igem.org/videos/embed/b7MemZTm5qKk1iNKgjFXGg1200632022-08-28T13:51:21.198ZMDSYES2022 Project PromotionsNOhttps://video.igem.org/w/jKpRVwjSbNc4E5YuTjRGfWhttps://video.igem.org/lazy-static/thumbnails/f33c083a-1820-4564-b3c2-995cfe15ab42.jpgSesame_Shenzhen: Uric acid lowering probiotic (2022) - Project Promotion [English]**Title:** Uric acid lowering probiotic **Description:** Hyper Uricemia, or high uric acid blood level, leads to significant national health problems in china. The deposits of Uric acid can form crystals in the joints, called gout, which can cause severe pain is becoming increasingly more popular. Therfore, we have envisioned for an engineered bacteria that can release urate oxidase, which oxidates uric acid into water-soluble allantoin for easier catabolism. Our bacteria work in the gut, which can continuously lower uric acid levels, and doesn't interfere with the body's metabolism like drugs do. [Wiki](https://2022.igem.wiki/sesame-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/97d42ec4-e8ca-49d8-a753-7c7e668a2baa/993f1a21-c10b-4ee1-8a53-d425779ba7b9-master.m3u8https://video.igem.org/videos/embed/jKpRVwjSbNc4E5YuTjRGfW1200472022-08-29T06:46:03.098ZYES2022 Project PromotionsNOhttps://video.igem.org/w/eNCRbEjJiiwzstr3pnUfE3https://video.igem.org/lazy-static/thumbnails/bf0a893d-0141-4ccf-9cdb-874f0e2495b1.jpgLinkoping_Sweden: Linköping University - AptaTear (2022) - Project Promotion [English]**Title:** Linköping University - AptaTear **Description:** The purpose of the project is to create a biosensor for the biomarker tau, which can be detected in tears once a minor brain injury (mTBI) occurs. The biosensor is supposed to offer a noninvasive detection method using the tears of a patient. The biomarker will be detected by the use of either aptamers or antibodies. [Wiki](https://2022.igem.wiki/linkoping-sweden)https://static.igem.org/peertube/streaming-playlists/hls/6fc9b971-4572-4538-a3f3-c6e9b4b7ea66/c9bcc01c-1d85-438d-ab8e-e9604fbfa8e1-master.m3u8https://video.igem.org/videos/embed/eNCRbEjJiiwzstr3pnUfE31200562022-08-29T14:55:31.036ZAptamerTauDiagnosticsNeurodegenerationYES2022 Project PromotionsNOhttps://video.igem.org/w/7ygn8LtRxDVaXRMJZXqvGhhttps://video.igem.org/lazy-static/thumbnails/29d3ba65-d3ec-4276-a923-fa8334ded432.jpgLZU-HS-Pro-B: A Test a Day Keeps the Gout Away (2022) - Project Promotion [English]**Title:** A Test a Day Keeps the Gout Away **Description:** Uric acid affects us greatly. Many bad habits increase amount of uric acid in our body, leading to hyperuricemia and other relating diseases, happening younger nowadays. Our team is designing a uric acid sensor involving sensor, amplification and signal system that replaces blood tests with urine tests. We pursue early detection and prompt treatments. We are LZU-HS-Pro-B. With our creation, we aim to create a healthier, more convenient "painless world". [Wiki](https://2022.igem.wiki/lzu-hs-pro-b)https://static.igem.org/peertube/streaming-playlists/hls/351819ea-7b92-47a2-858f-924eb0e3db04/4b85b4b1-ad60-41f2-b6c6-e708cd452379-master.m3u8https://video.igem.org/videos/embed/7ygn8LtRxDVaXRMJZXqvGh1210522022-08-29T14:58:53.877ZUricAcidHyperuricemiaAUricAcidSensorEarlyDetectionYES2022 Project PromotionsNOhttps://video.igem.org/w/rcSYbgw1n9mip3jWt4VKYChttps://video.igem.org/lazy-static/thumbnails/747d2273-d3f5-46f6-abd6-cd9af521cee7.jpgNMU_China: WHACK-A-MOLE (2022) - Project Promotion [English]**Title:** WHACK-A-MOLE **Description:** When we play Whac-a-mole, we often get questions like this: moles came out of the machine one after another.The endless supply of moles can no longer be defeated by our little hammers alone.In fact, whack-a-mole is very similar to the tumors.As tumors grow, proliferate, and evolve, different tumor cells exhibit different antigens.Traditional CAR-T targeting a limited number of targets has been unable to overcome so many different tumor cells.Targeted at this problem, we designed a " giant hammer"---CAR-NK92 library which can take them out with a single blow. [Wiki](https://2022.igem.wiki/nmu-china)https://static.igem.org/peertube/streaming-playlists/hls/cc1d0ef7-abf9-43e3-b790-77930936a5b8/672013bd-8842-44a8-b362-38ebdc832313-master.m3u8https://video.igem.org/videos/embed/rcSYbgw1n9mip3jWt4VKYC1200452022-08-29T15:26:53.095ZCARTumorNKYES2022 Project PromotionsNOhttps://video.igem.org/w/ftxRkPzJq1fcpEsy6iX2kRhttps://video.igem.org/lazy-static/thumbnails/def2cc42-acc6-4a3f-bcd7-42fc5ef70ea4.jpgSJTU-BioX-Shanghai: Odyssey (2022) - Project Promotion [English]**Title:** Odyssey **Description:** How to store the information in a thousand years' interstellar trip? Now, introducing project Odyssey —— a project aims to store information into modified Bacillus subtilis spores with high information density, long shelf life and marvellous radiation resistance. With this 'tough buddy', we are sure your precious information will be safe and sound during your great voyage! [Wiki](https://2022.igem.wiki/sjtu-biox-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/7538a6d7-fbdd-4f60-b852-ba1d05b98b6b/98fb4446-ec4c-4a49-abd7-016f26c06694-master.m3u8https://video.igem.org/videos/embed/ftxRkPzJq1fcpEsy6iX2kR11901242022-08-29T15:39:41.809ZBacillusSubtilisSporesMelaninDsupProteinDNADataStorageYES2022 Project PromotionsNOhttps://video.igem.org/w/wdtgH8PEuT7myZkAkCpSEohttps://video.igem.org/lazy-static/thumbnails/cf631bc8-871e-476b-9fd4-4d5b5129cef7.jpgBarcelona_UB: Vesiprod (2022) - Project Promotion [English]**Title:** Vesiprod **Description:** Vesiprod has designed a biological system to enhance exosome production and facilitate its purification while introducing a system for RNA cargo loading. We have generated a genetically engineered cell line to produce extracellular vesicles charged with a siRNA against c-myc, which plays a key role in the development of Burkitt’s lymphoma. Hence, our method also intends to expand as an innovative side-effect-free therapy for this disease. [Wiki](https://2022.igem.wiki/barcelona-ub)https://static.igem.org/peertube/streaming-playlists/hls/f4afe42c-0f31-43fc-bf20-a4bfee6ca972/d2cf4340-7b3f-46f7-a679-503dba540920-master.m3u8https://video.igem.org/videos/embed/wdtgH8PEuT7myZkAkCpSEo12001372022-08-29T17:55:03.346ZExosomesBurkittLymphomaTherapyManufacturingYES2022 Project PromotionsNOhttps://video.igem.org/w/ugSLRYa4w5EZ1MqGstva5thttps://video.igem.org/lazy-static/thumbnails/4b7ffe8e-da18-4f03-b7e9-391dba55338d.jpgLambert_GA: CADlock (2022) - Project Promotion [English]**Title:** CADlock **Description:** Coronary artery disease (CAD) accounts for 17.8 million deaths worldwide each year. Current detection methods are costly and invasive, making them inaccessible to many. Our discussions with cardiologists, stakeholders and researchers led us to develop our project CADlock. We utilize three upregulated microRNA biomarkers, miR-1-3p, miR-133a-3p, and miR-451-3p, to provide a novel screening tool for CAD. Our project uses padlock probes with rolling circle amplification or rolling circle transcription to quantify these microRNAs using fluorescence. Furthermore, we developed ProbeBuilder, a padlock probe generator software, and microQ, a portable fluorescent quantifier that allows for point-of-care screening for CAD. CADlock provides an additional detection method for physicians, facilitating a point-of-care screening method for CAD and post diagnosis patient monitoring. [Wiki](https://2022.igem.wiki/lambert-ga)https://static.igem.org/peertube/streaming-playlists/hls/e4f7544c-af54-47b2-98db-26c2341877bf/c845829e-dfbe-4830-94b6-094f8249827d-master.m3u8https://video.igem.org/videos/embed/ugSLRYa4w5EZ1MqGstva5t12009712022-08-29T18:46:25.253ZCoronaryArteryDiseaseBiosensorMedicalBiosensorYES2022 Project PromotionsNOhttps://video.igem.org/w/gQqotqddxjFUMu6vM52Rihhttps://video.igem.org/lazy-static/thumbnails/2b8aaf72-a884-4513-9505-722e1f412f08.jpgPINGHE: Biosynthesis of medium-chain fatty acid (MCFAs) by Reversing the Fatty A... (2022) - Proj...**Title:** Biosynthesis of medium-chain fatty acid (MCFAs) by Reversing the Fatty Acid β-Oxidation Cycle **Description:** The medium-chain fatty acid (MCFAs) have a favorable safety profile and are used to treat a variety of disorders such as benefits in skin care, weight loss, and cardiovascular uses. However, most of the MCFAs people use now are extracted from tropical plants, which is very time-consuming and limits the amount of medium chain triglyceride. Our goal is to strengthen the MCFAs synthesis pathway and optimize T7 initiation by over-expressing key enzymes in the reverse fatty acid β-oxidation cycle in E. coli to increase the production of MCFAs. We constructed pET28a-EGFP plasmid with fluorescent protein. In order to find the mutation that works the best, we designed point mutations C1, C2, C3, and C4 on T7 promoter, and constructed these four T7 promoter mutants on plasmids. We found out that the C1 mutation was the strongest promoter, which hooked up the selected mutations to the four enzymes that actually build the medium-chain fatty acids. This mutated promoter was then applied to the four enzymes used in our pathway to increase the amount of medium-chain fatty acids production. [Wiki](https://2022.igem.wiki/pinghe)https://static.igem.org/peertube/streaming-playlists/hls/803bcf67-1102-4e1a-a82c-c477163a4316/fcff6b6f-5b34-4d92-a635-b03698e0d669-master.m3u8https://video.igem.org/videos/embed/gQqotqddxjFUMu6vM52Rih1200822022-08-30T04:11:18.858ZMCFAsβ-OxidationCycleYES2022 Project PromotionsNOhttps://video.igem.org/w/iFUasEtMrWszV1z4CTuEjBhttps://video.igem.org/lazy-static/thumbnails/6040b69e-e9bc-4de0-8788-504750f9c71c.jpgRDFZ-CHINA: Probiotic for losing weight (2022) - Project Promotion [English]**Title:** Probiotic for losing weight **Description:** Overweight and obesity are common yet serious problems that can lead to several health consequences such as cardiovascular diseases, musculoskeletal disorders, and depression. Today, more than 2 billion people are suffering from overweight and obesity worldwide. Meanwhile, the existed drug therapy such as Orlistat and Liraglutide has a series of side effects. Therefore, we try to find out an alternative way to treat obesity. [Wiki](https://2022.igem.wiki/rdfz-china)https://static.igem.org/peertube/streaming-playlists/hls/8f3d82ca-7040-4187-9fe4-cf187efbfbdf/0c996a7b-786b-497f-82b6-6fa351511b8c-master.m3u8https://video.igem.org/videos/embed/iFUasEtMrWszV1z4CTuEjB12001722022-08-30T05:14:00.719ZBioE.coliYES2022 Project PromotionsNOhttps://video.igem.org/w/fQPFT73g9NRsYLLwQmRqYmhttps://video.igem.org/lazy-static/thumbnails/cc467843-1aec-4bef-b570-f8e7ec9865b9.jpgShanghai_city: Fish tank scavenger (2022) - Project Promotion [English]**Title:** Fish tank scavenger **Description:** This research aims to find an alternative solution to bacterial inhibition. Currently, antibiotics are popular choices due to their effectiveness against microorganism infection, while their abuse leads to bacterial resistance issues thus posing a huge threat to global health. Antimicrobial peptides (AMPs) are alkaline polypeptides that can inhibit bacterial activity without causing bacterial resistance. For this issue, we developed five types of AMPs based on the following functional genes: Hydramacin-1, Spheniscin-2, Sparamosin26-54, LL-37, and fusion. The target gene was integrated into plasmid pET28a(+), expressing AMPs in E.coli BL21(DE3) competent cell. Besides the development of bacterial inhibition functions, the fusion AMP has antifungal abilities. Because the aquariums regularly replace a lot of water, we hope that the AMPs created can shed light on a more convenient method of fish tank cleaning to save water resources. [Wiki](https://2022.igem.wiki/shanghai-city)https://static.igem.org/peertube/streaming-playlists/hls/783107dd-f8f0-446e-8d50-74b18a24d28c/bfd9b3e2-d8ed-4c45-a171-5d9ee9ab3708-master.m3u8https://video.igem.org/videos/embed/fQPFT73g9NRsYLLwQmRqYm1130152022-08-30T05:45:14.997ZAMPsGeneYES2022 Project PromotionsNOhttps://video.igem.org/w/a3YRUsekW7bxmLFVz7tHpJhttps://video.igem.org/lazy-static/thumbnails/beab0283-1a19-478d-8192-55ed737e430b.jpgBeijing_United: Modification of SbPETase in Escherichia coli and the establishme... (2022) - Proj...**Title:** Modification of SbPETase in Escherichia coli and the establishment of its efficient secretion system **Description:** Polyethylene terephthalate (PET), one of the most widely used plastics in the world, is currently causing serious environmental pollution. In recent years, more and more researchers have focused on the enzymatic degradation of PET, which is a more environmentally friendly degradation and recycling method than the traditional chemical and physical recycling methods. In this study, the team established an efficient secretion system of PET degradation enzyme in E. coli BL21(DE3) using the signal peptide PelB and the colistin-releasing protein Kil, which not only improved the enzyme yield but also greatly simplified the purification process of PET degradation enzyme. This provided a more convenient tool for further study of the enzyme. In addition, the team rationalized the PET hydrolase SbPETase from Schlegelella brevitalea sp. nov. and used the established secretion system to rapidly screen for triple mutants with significantly increased activity. [Wiki](https://2022.igem.wiki/beijing-united)https://static.igem.org/peertube/streaming-playlists/hls/494cc6e6-c339-4b45-8934-30d606e95f1c/dd89911a-360e-4f3f-a69e-9c18b697d334-master.m3u8https://video.igem.org/videos/embed/a3YRUsekW7bxmLFVz7tHpJ1180172022-08-30T05:54:07.521ZPETPelBKilYES2022 Project PromotionsNOhttps://video.igem.org/w/szfVb9Twm9u8nFmbZBgckchttps://video.igem.org/lazy-static/thumbnails/12d73c81-b5b5-46e5-8d5d-da1b1ffddadf.jpgCanton_HS: Autism Detector (2022) - Project Promotion [English]**Title:** Autism Detector **Description:** Autism is a developmental disorder with increasing incidence. Studies have found that the levels of tryptophan, Glutamate and copper in autism patients are significantly increased. Our research uses biosensors to detect the levels of these substances in the blood for early screening of autism. We constructed an engineered strain of recombinant plasmid pTrc99K-trp to detect tryptophan, and constructed a CopA plasmid containing a specific promoter for detecting copper ions; and by constructing a SLC7A5 gene plasmid, we increased the level of Shanks3 to achieve the effect of treating autism. [Wiki](https://2022.igem.wiki/canton-hs)https://static.igem.org/peertube/streaming-playlists/hls/d73257a6-4d31-44bb-9780-564a9c790c8d/144aab08-a576-4f7d-bed7-5b776163bd89-master.m3u8https://video.igem.org/videos/embed/szfVb9Twm9u8nFmbZBgckc1200252022-08-30T06:06:31.839ZAutismTryptophanGlutamateCopperSLC7A5YES2022 Project PromotionsNOhttps://video.igem.org/w/2JukRSjQMEoH9q3hTjHCA9https://video.igem.org/lazy-static/thumbnails/fdff8d20-69ec-415e-a106-63a50f2f0705.jpgEast_China: N-Butanol Cell Factory (2022) - Project Promotion [English]**Title:** N-Butanol Cell Factory **Description:** N-butanol, an organic compound(C4H10O), is a colorless transparent liquid. There is a larger demand for N-butanol than before. N-butanol can take advantage of its organic compounds to help transport hydrogen and reduce the waste of electricity, while also being a less polluting fuel. However, there are many disadvantages in the traditional N-butanol manufacturing process. Thus, our purpose is to produce N-butanol more efficiently by biosynthesis as well as be more friendly to the environment. Below is the method, Streptomyces acetobutyrate genes thl, hbd, crt and streptomyces dentatus ter need to be cloned into a plasmid expressing butanol synthetic pathway proteins. The plasmid carrying these genes with optimized codon will be introduced into the target strain through electrical transformation to test whether the transformants can successfully synthesize N-butanol. After that, the expression of the strain will be further optimized to successfully construct lactobacillus that could produce N-butanol using glucose as raw material. [Wiki](https://2022.igem.wiki/east-china)https://static.igem.org/peertube/streaming-playlists/hls/0e07d7f8-308d-4117-8d46-c6c5ea17a034/2c25ea3f-ad27-4be3-b6a3-ab959ef4eabf-master.m3u8https://video.igem.org/videos/embed/2JukRSjQMEoH9q3hTjHCA91180132022-08-30T06:24:14.676ZN-butanolPlasmidGeneYES2022 Project PromotionsNOhttps://video.igem.org/w/ofXmNyYUvuP6NwnTNEjXichttps://video.igem.org/lazy-static/thumbnails/28f8490c-3f32-48ee-8568-885bc1c86770.jpgECNUAS: Increase the level of rapamycin fermentation by knocking out the M271_14... (2022) - Proj...**Title:** Increase the level of rapamycin fermentation by knocking out the M271_14685/M271_14690 gene in Streptomyces rapamycinicus **Description:** Organ transplantation faces the problem of immune rejection while giving patients a second life. Rapamycin is a new type of macrolide antibiotic, and it is also a widely used clinical drug for the treatment of immune rejection, which can greatly improve the survival rate of transplanted organs after surgery. But this medicine is low productivity and it is also expensive. Our project intends to construct an engineered strain by means of genetic engineering, mainly by knocking out the two-component system encoding gene M271_14685/M271_14690 in Streptomyces rapamycinicus, optimizing the metabolic regulatory network of rapamycin biosynthesis, and improving the fermentation yield of the rapamycin, which will bring greater value to clinical treatment and help patients which take organ transplantations. [Wiki](https://2022.igem.wiki/ecnuas)https://static.igem.org/peertube/streaming-playlists/hls/b43f944c-88b8-483b-8011-6f6ce48a91d1/393159aa-f09c-4537-b604-fadd302479f4-master.m3u8https://video.igem.org/videos/embed/ofXmNyYUvuP6NwnTNEjXic1120322022-08-30T06:30:39.761ZGeneticEngineeringOrganTransplantationRapamycinYES2022 Project PromotionsNOhttps://video.igem.org/w/kz1pyG5oAQ8UJD5RjGyrFQhttps://video.igem.org/lazy-static/thumbnails/714b5862-4445-4f6a-aae7-6fd855376937.jpgShanghai_HS: Dual Oral Vaccines (2022) - Project Promotion [English]**Title:** Dual Oral Vaccines **Description:** Enteroviruses and rotaviruses are the main gastrointestinal pathogens affecting the health of infants and young children. This project intends to target two viruses, explore dual oral vaccines, and use the bifidobacteria expression system to obtain recombinant proteins expressed by fusion of two antibodies, so as to achieve immunity from two viruses by eating a sugar pill, and protect the health of infants and young children. The principle is to construct a VR-vp7 and EV71-vp1 fusion expression vector, import it into Escherichia coli BL21 (DE3), and then transfer it into Bifidobacterium after expression verification to verify the possibility of constructing a rotavirus/EV71 combined antibody. The oral vaccine has broad clinical application prospects. [Wiki](https://2022.igem.wiki/shanghai-hs)https://static.igem.org/peertube/streaming-playlists/hls/9e796de8-1179-4d1c-8d7e-50106e1fd38a/aa9b4ddf-2396-4dd8-977a-e20863720ef0-master.m3u8https://video.igem.org/videos/embed/kz1pyG5oAQ8UJD5RjGyrFQ1140272022-08-30T06:54:48.196ZEnterovirusesRotavirusesOralVaccinesYES2022 Project PromotionsNOhttps://video.igem.org/w/ouK1FEdxQkLPJzUgYAwDqghttps://video.igem.org/lazy-static/thumbnails/c477d35c-d6cb-4e42-a9bf-a0a014c927e6.jpgShanghai_Metropolis: Fruit wine brewing Plus (2022) - Project Promotion [English]**Title:** Fruit wine brewing Plus **Description:** The high content of higher alcohol in beverages can easily lead to symptoms such as headache and thirst after drinking, which is the main reason for the slow drunkenness and the difficulty in sobering up after drunkenness. This project finely regulates the metabolic pathways of higher alcohols in Saccharomyces cerevisiae through genetic engineering to reduce the production of higher alcohols. First, the intracellular homologous recombination technology was used to knock out the branched-chain amino acid aminotransferase encoded by the BAT2 gene, and at the same time, the alcohol acetyltransferase ATF1 gene was used to replace the position of the BAT2 gene. Secondly, the ATF1 gene is placed on the expression vector of Saccharomyces cerevisiae, and then transferred to Saccharomyces cerevisiae, so as to achieve the purpose of reducing the level of higher alcohol in Saccharomyces cerevisiae. This project makes the brewed beverage have less high alcohol content, so that he drinker is not uncomfortable in the head. [Wiki](https://2022.igem.wiki/shanghai-metropolis)https://static.igem.org/peertube/streaming-playlists/hls/b62c620e-b0ea-4391-ad4c-975400958443/8917dcf9-6d34-4ae6-870e-cd087ff2ccca-master.m3u8https://video.igem.org/videos/embed/ouK1FEdxQkLPJzUgYAwDqg1200492022-08-30T07:06:39.030ZATF1BAT2HighAlcoholYES2022 Project PromotionsNOhttps://video.igem.org/w/rEdfNd4KJSiCtnaGDC15Twhttps://video.igem.org/lazy-static/thumbnails/f98123b9-6229-4379-b6e4-983e3a3f6a37.jpgShanghai_United: Mixed Feed Additives (2022) - Project Promotion [English]**Title:** Mixed Feed Additives **Description:** Pasture feed mainly includes silage and grain feed. Silage contains a large amount of lignocellulose, which is difficult to digest and absorb, while grain feed is composed of a large amount of hemicellulose xylan, which is not easily absorbed by animals. This project plans to adopt the multi-enzyme synergistic degradation strategy to construct engineering bacteria that can hydrolyze lignocellulose and hemicellulose xylan at the same time. Firstly, the recombinant plasmids of cellulase PKC and xylanase xynA were constructed and transformed into P. pastoris, and the positive transformants were screened to obtain the recombinant bacteria group with high enzyme production, and the enzyme activity and extracellular protein secretion were measured.This project can improve the utilization rate of silage and grain mixed feed and the applicable breeds of livestock, and improve the economic value of mixed feed. [Wiki](https://2022.igem.wiki/shanghai-united)https://static.igem.org/peertube/streaming-playlists/hls/cfca4841-1210-41ca-8e0f-9fc617d5ba1c/932f5d78-391e-4e95-a5d9-6e9e1059dd0f-master.m3u8https://video.igem.org/videos/embed/rEdfNd4KJSiCtnaGDC15Tw1200292022-08-30T07:17:14.591ZPKCXynAMixedFeedYES2022 Project PromotionsNOhttps://video.igem.org/w/umKJPAbBGLiTwan2etvMTJhttps://video.igem.org/lazy-static/thumbnails/997e2e4b-e54e-4629-8edf-53fa5d791764.jpgSHBS-BANZ: Genetic stapler (2022) - Project Promotion [English]**Warning:** this video indirectly refers to suffering from grave illness. **Title:** Genetic stapler **Description:** CRISPR-Cas9 is the third-generation gene editing technology after the introduction of ZFN, TALENs and other gene editing technologies. In just a few years, it has swept the world and become the most mainstream gene editing system today. As research progresses, CRISPR gene-editing technology carries an implied risk of off-target, the accidental editing of other genes in the genome with unpredictable consequences. In this project, the common tool plasmids in prokaryotic expression systems are transformed, and TSD and TIR elements that can be recognized by Casposons are added to achieve site-directed insertion, which is verified by sequencing. This technology can not only play a role in the study of disease treatment methods, but also become an efficient tool for upstream gene cloning. [Wiki](https://2022.igem.wiki/shbs-banz)https://static.igem.org/peertube/streaming-playlists/hls/e5a5b66a-0606-4698-9d14-73730d659724/4a510d81-81f8-4b47-a627-1d0c22bfe8c1-master.m3u8https://video.igem.org/videos/embed/umKJPAbBGLiTwan2etvMTJ1200112022-08-30T07:25:45.518ZCRISPR-Cas9TSDTIRGeneCloningYES2022 Project PromotionsNOhttps://video.igem.org/w/wLBwssi2hUHody7G43gsPuhttps://video.igem.org/lazy-static/thumbnails/d88e1e54-f5af-418b-b21c-ae46d8fc0684.jpgSHSID: Caries Prevention Plus (2022) - Project Promotion [English]**Title:** Caries Prevention Plus **Description:** Caries is a bacterial infection that occurs in dental tissue. This project upgrades genetically engineered bacteria, which can not only specifically kill Streptococcus mutans that cause caries, but also effectively prevent Formation of biofilm and dissolution of biofilm that has already formed, preventing caries. The principle of this project is by constructing the DexA plasmid and the ClyR plasmid, using Escherichia coli Nissle 1917 strain to obtain DexA and ClyR engineering strains, and measuring the enzyme secretion and enzyme activity by SDS-PAGE and reducing sugar method, and testing its ability to inhibit the formation of Streptococcus mutans biofilm and break the biofilm achieves the dual effect of removing the biofilm barrier and lysing caries bacteria. This project has great potential in the prevention and treatment of dental caries. [Wiki](https://2022.igem.wiki/shsid)https://static.igem.org/peertube/streaming-playlists/hls/f92cc75f-aaed-4d30-b052-4d96828a54c2/5ef6b58f-0983-4902-85d0-adf5527fe256-master.m3u8https://video.igem.org/videos/embed/wLBwssi2hUHody7G43gsPu1200502022-08-30T07:32:03.374ZCariesDexAClyRYES2022 Project PromotionsNOhttps://video.igem.org/w/tWy6dTSjVkaUZoEzmsdWTohttps://video.igem.org/lazy-static/thumbnails/9dee6cc8-98f4-44e2-99fe-7935f25b1654.jpgYkPaO: Gastric cancer detector (2022) - Project Promotion [English]**Title:** Gastric cancer detector **Description:** Helicobacter pylori is an anaerobic helicobacter parasitic in the human stomach, which was first isolated from the body of gastric ulcer patients by Marshall. It has been listed as a clear carcinogen. The detection of Helicobacter pylori has become an important physical examination item for the prevention of gastric cancer. The design idea of this project is to construct Helicobacter pylori 16s and cagA sequence vectors and transfer them into Escherichia coli to simulate Helicobacter pylori. Then, by constructing Cas12a and sgRNA vectors, isothermal amplification technology is used to identify the simulated Escherichia coli. This project will build a fast and convenient detection method for Helicobacter pylori, Shigella and Salmonella based on CRISPR, help people to detect Helicobacter pylori, Shigella and Salmonella conveniently and efficiently, and contribute to the prevention of gastric cancer. [Wiki](https://2022.igem.wiki/ykpao)https://static.igem.org/peertube/streaming-playlists/hls/e244aeff-b7f9-4af9-a139-ff784af0147c/fb082db7-ff99-4614-b886-e64308b53280-master.m3u8https://video.igem.org/videos/embed/tWy6dTSjVkaUZoEzmsdWTo11901282022-08-30T08:28:32.205ZHelicobacterPyloriCRISPRGastricCancerYES2022 Project PromotionsNOhttps://video.igem.org/w/cdLUXUvB5LYWyEM4UCgYtahttps://video.igem.org/lazy-static/thumbnails/09e4ec08-6d95-47ef-bc4f-cc750d668e06.jpgSZPT-CHINA: Journey to the West (II)——the Magical Self-growth Multifunctional Film (2022) - Proje...**Title:** Journey to the West (II)——the Magical Self-growth Multifunctional Film **Description:** We took inspiration from 2021 SZPT-CHINA's Journey to the West. On the way to the West, Tang Seng and his three apprentices were arrested by the evil spirit. To make the spots and wrinkles disappear, the evil spirit wanted to eat the flesh of Tang Seng. After she used the 2022 SZPT-CHINA "self-growth multifunctional film", her delicate skin was back. Eventually, she released the master and his three apprentices. [Wiki](https://2022.igem.wiki/szpt-china)https://static.igem.org/peertube/streaming-playlists/hls/5add2114-dd1b-4b4c-a3b5-7905441a325f/441f7940-fbf6-4509-b893-1b5c85e58c1d-master.m3u8https://video.igem.org/videos/embed/cdLUXUvB5LYWyEM4UCgYta1170492022-08-30T10:05:48.407ZGlutathioneG.HanseniiBacterialCelluloseYES2022 Project PromotionsNOhttps://video.igem.org/w/698b1ufTxQxEFu9NMJgoKYhttps://video.igem.org/lazy-static/thumbnails/de4d429b-72c7-4f9d-9e3d-91e4b1a4c6b4.jpgXMU-China: OMEGA (2022) - Project Promotion [English]**Title:** OMEGA **Description:** One day, Bubble found his shrimps were sick, so he called XMU-China for help. After detection, it turned out to be AHPND caused by V. parahaemolyticus. With the help of XMU-China, functional outer membrane vesicles (OMVs) released by E. coli were used to treat the shrimps and attenuate the virulence of remaining V. parahaemolyticus. In the end, Bubble had a bumper harvest. [Wiki](https://2022.igem.wiki/xmu-china)https://static.igem.org/peertube/streaming-playlists/hls/29a0104f-0d73-4b40-bafb-a6e601725aa6/5cb6fda8-7401-44c9-b337-1a525ce9c268-master.m3u8https://video.igem.org/videos/embed/698b1ufTxQxEFu9NMJgoKY11403592022-08-30T11:03:43.617ZOMVsCell-freeDetectionAHPNDFood&NutritionYES2022 Project PromotionsNOhttps://video.igem.org/w/o8uRQUnSHcZwKutboBkkfihttps://video.igem.org/lazy-static/thumbnails/06495277-5da6-4d91-9f8e-4a297d2c8d18.jpgAthens: PERspectives (2022) - Project Promotion [English]**Title:** PERspectives **Description:** Inspired by computer science and Artificial Neural Networks (ANN), our team, iGEM Athens has chosen to design PERspectives. It concerns a project that aims to implement a Perceptron algorithm in a biological circuit. Constituting a form of bacterial artificial intelligence, we hope that our biocomputing system will find various applications in different fields by giving Synthetic Biology new perspectives. [Wiki](https://2022.igem.wiki/athens)https://static.igem.org/peertube/streaming-playlists/hls/b3350ac8-b7d7-4076-b9c1-113b6263d6d1/97282d30-1766-404a-9357-94feb65cf061-master.m3u8https://video.igem.org/videos/embed/o8uRQUnSHcZwKutboBkkfi1180372022-08-30T11:27:41.720ZPerceptronQuorumSensingArtificialNeuralNetworksANNsBacterialIntelligenceYES2022 Project PromotionsNOhttps://video.igem.org/w/ofKudnY9Ka3nmCaq3jFLGAhttps://video.igem.org/lazy-static/thumbnails/7a9127af-eb0f-4a30-96f8-58534ee9ea95.jpgHainanU_China: NATer—— nucleic acid tracker (2022) - Project Promotion [English]**Title:** NATer—— nucleic acid tracker **Description:** Inspired by the epidemic Chinese, HainanU_China the team is based on the construction of the nucleic acid detection platform of the CRISPR/Cas system, and is committed to the construction of the portable, single-base, non-amplified CRISPR/Cas13 &cas14 nucleic acid detection platform and the application of this technology in the detection of drug-resistant bacteria. The team connected and connected a number of proteins such as Cas13a, Cas14, Csm6 and so on, independently constructed a "shackle" system to improve the detection accuracy, used the model to conduct simulation experiments, and relied on the State Key Laboratory of Marine Resources Utilization in the South China Sea for experimental verification, and has made good progress. In addition HainanU_China is cooperating with TEU, JLU, FAFU, NNU and other teams to carry out HP projects, including but not limited to joint manuals, experimental mutual verification, expert interviews, online conferences, model co-construction and other fields, for us, in the process of practice, we hope that more people can understand synthetic biology, open a wonderful door for more people to understand the world, building knowledge, building application. The Hainan University team is acting as a rising member to play the advantages of the hot zone in the IGM team in China and highlight the strength of the free trade port. [Wiki](https://2022.igem.wiki/hainanu-china)https://static.igem.org/peertube/streaming-playlists/hls/b4384344-debd-4c6a-ae71-1e54be41f25a/254c5adb-1882-4f3a-9f04-3c8c334df03d-master.m3u8https://video.igem.org/videos/embed/ofKudnY9Ka3nmCaq3jFLGA1200452022-08-30T13:27:46.990ZCRISPR/Cas13&Cas14YES2022 Project PromotionsNOhttps://video.igem.org/w/ozxJkWRvwyuypmz7ZMUgFYhttps://video.igem.org/lazy-static/thumbnails/cd717ccc-1058-46c9-968e-7b78c7aeb300.jpgNWU-CHINA-A: The Battle between Red and Blue (2022) - Project Promotion [English]**Title:** The Battle between Red and Blue **Description:** Our project is committed to using engineering probiotics as a chassis to make a biosensor suitable for detecting intestinal micro bleeding, and to design a device that can easily cultivate bacteria under non experimental conditions to achieve convenient self-test. By introducing double plasmids into EcN, ChuA(heme transporter), HrtR(Lactococcus heme reactive transcription inhibitor), promoter HrtO and pigment genes were introduced into engineering probiotics. By taking probiotics to act on the intestines, when there is a small amount of intestinal bleeding, ChuA will transport the heme in the intestines to E. coli and combine with hrtr to affect the transcription and expression of the hrto promoter, and the pigment gene downstream of the promoter will be transcribed and expressed. Finally, detect the pigment in the excreted feces, and judge whether there is trace bleeding from the presence or absence of color. [Wiki](https://2022.igem.wiki/nwu-china-a)https://static.igem.org/peertube/streaming-playlists/hls/b6d82637-1bcf-41fb-acc4-83feff1ac4ba/e5affb8d-1e12-40e0-abd1-05e4a08dc6a2-master.m3u8https://video.igem.org/videos/embed/ozxJkWRvwyuypmz7ZMUgFY1200372022-08-30T15:39:55.191ZIntestinalMicro-BleedingGutE.coliNissle1917DiagnosticsYES2022 Project PromotionsNOhttps://video.igem.org/w/nn2tbcy1KsPSLjEvUQctLrhttps://video.igem.org/lazy-static/thumbnails/14487c7a-9e53-42b0-b765-86f2dc46c309.jpgExeter: BionExe (2022) - Project Promotion [English]**Title:** BionExe **Description:** At BionExe we are working towards producing a silk-graphene composite using synthetically produced silk proteins and reduced graphene oxide. This material could provide a scaffold for a range of applications varying from nerve regeneration to tendon repair meaning our composite needs to be conductive, biocompatible, flexible, and strong. By synthetically producing silk proteins in E. coli, we are reducing the need for spider farms which are limited by disease and intensive labour requirements. [Wiki](https://2022.igem.wiki/exeter)https://static.igem.org/peertube/streaming-playlists/hls/acff6fa1-5219-4d00-85d3-2f8b9ae85255/aabdcfda-e625-44a4-a1b9-2acc1f797f67-master.m3u8https://video.igem.org/videos/embed/nn2tbcy1KsPSLjEvUQctLr12001182022-08-30T21:33:52.621ZSyntheticBiologyBiomanufacturingScienceSilkGrapheneYES2022 Project PromotionsNOhttps://video.igem.org/w/hvGyDD9nsbsnjgPCApKVauhttps://video.igem.org/lazy-static/thumbnails/76b05d65-daeb-4f5d-a881-aa1a5d4ed114.jpgOhioState: Phinder and Phighter (2022) - Project Promotion [English]**Title:** Phinder and Phighter **Description:** This year we are expanding our approach to address both diagnosis and treatment of sepsis. We are implementing a phage model to diagnose infection cultures in the early stages of sepsis to provide a timely and efficient diagnostic that improves outcomes. Time is of the essence when treating sepsis, and we hope that a timely diagnosis will increase the efficacy of our system and treatment. [Wiki](https://2022.igem.wiki/ohiostate)https://static.igem.org/peertube/streaming-playlists/hls/85b7c921-e36b-44ef-adb1-1b224c9dc082/8a7e2239-b1a7-4852-9d5d-4b9a1ebceaa9-master.m3u8https://video.igem.org/videos/embed/hvGyDD9nsbsnjgPCApKVau1200202022-08-30T23:50:43.538Z#ReporterAssaySepsis#Phages#Find&Fight#AntibioticsYES2022 Project PromotionsNOhttps://video.igem.org/w/v9HVdyUNNpmn5aYqYjwp2hhttps://video.igem.org/lazy-static/thumbnails/e51673f5-0f01-4a26-9b4d-5c71033ff4c7.jpgMichigan: AMPlify (2022) - Project Promotion [English]**Title:** AMPlify **Description:** Our team will address antibiotic resistance by developing a novel, efficient, and scalable method to produce protein-based antibiotics. Biological synthesis in bacteria is used at scale for other protein-based therapeutics. Utilizing bacteria as the cellular factories to synthesize an antibacterial product poses a risk of the antimicrobial peptide exerting its antagonistic effects on the bacteria it is being produced in. Our team will use encapsulins to address this challenge. [Wiki](https://2022.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/ec10cdcc-0bf9-4cf1-a858-c10182771c56/87f91966-24b6-4425-a785-3240055a5014-master.m3u8https://video.igem.org/videos/embed/v9HVdyUNNpmn5aYqYjwp2h12001342022-08-31T00:10:27.119ZAntibioticResistanceEncapsulinAMPYES2022 Project PromotionsNOhttps://video.igem.org/w/kKiP5usVhASqQ8dJNnG6qthttps://video.igem.org/lazy-static/thumbnails/3bb574f5-aabe-46e9-98e9-1e7195f34439.jpgMichigan: AMPlify (2022) - Project Promotion [Spanish]**Title:** AMPlify **Description:** Our team will address antibiotic resistance by developing a novel, efficient, and scalable method to produce protein-based antibiotics. Biological synthesis in bacteria is used at scale for other protein-based therapeutics. Utilizing bacteria as the cellular factories to synthesize an antibacterial product poses a risk of the antimicrobial peptide exerting its antagonistic effects on the bacteria it is being produced in. Our team will use encapsulins to address this challenge. [Wiki](https://2022.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/9fe997ee-cb59-40ff-8db0-505f7b784e0f/42ac4cb0-07c9-40a4-8bcb-4927164af892-master.m3u8https://video.igem.org/videos/embed/kKiP5usVhASqQ8dJNnG6qt120032022-08-31T00:12:08.632ZAMPEncapsulinAntibioticResistanceYES2022 Project PromotionsNOhttps://video.igem.org/w/2e6229HdF9SQVomATPED8khttps://video.igem.org/lazy-static/thumbnails/6e836a00-afca-4cd3-a1b1-bc65b302e001.jpgJiangsu_United: Targeting FoxO1 for anti-T2DM drug development (2022) - Project Promotion [English]**Title:** Targeting FoxO1 for anti-T2DM drug development **Description:** Approximately 537 million people around the world suffer from diabetes, while 90% of which are type 2, such disease affects the body’s response or production of insulin, thus limiting one’s capability of controlling their blood sugar levels. Current solutions to this potentially fatal condition are accepted as commonplace in their treatment. However, this inaccessibility to life-saving medicine prompted us to find an alternative to treating symptoms of type 2 diabetes. We constructed a drug screening platform targeting FoxO1, a primary controller for glucose production. And it was successfully screened that compound 355 has the activity of inhibiting the FoxO1 gene. This compound provides a root solution for diabetes, lowering glucose levels in the blood without the need for insulin. We aim for this treatment to be a tablet-pill-based medicine, and more affordable to the general masses. [Wiki](https://2022.igem.wiki/jiangsu-united)https://static.igem.org/peertube/streaming-playlists/hls/09ece65d-96cf-490e-8a4e-690449a3ed1d/7f8baf4a-7009-4b2f-b923-2b28ab1d3c77-master.m3u8https://video.igem.org/videos/embed/2e6229HdF9SQVomATPED8k1170402022-08-31T01:28:48.989ZFoxO1DiabetesYES2022 Project PromotionsNOhttps://video.igem.org/w/aVM4E4QDLiWGFTUGuHHgWshttps://video.igem.org/lazy-static/thumbnails/fee6c02e-77b9-4629-86bc-76362a93ee6c.jpgDay 1 - WiSTEM Entrepreneurship Bootcamp 2022: Female Entrepreneurship 101 & Investment in Female...The Women Entrepreneurship Bootcamp aims to encourage women to join SynBio entrepreneurship by building participants’ confidence in their start-up ideas, providing information on funding and pitching and discussing inspirational work by current female entrepreneurs. Srishty Rathee, co-leader of the WiSTEM initiative, moderated the panel discussion, Female Entrepreneurship, featuring Shraddha Bhansali, Co-founder at EVO foods, Angela de Manzanos, CEO and Co-founder at FABio, and Alison Hirukawa, CEO and Founder at Drop Genie. We also hosted Investment in Female-led Startups, with Kiri Lenagh-Glue, Senior Investment Analyst at Matū Group, Dr. Dalal AlGhawas, Program Director at Big Idea Ventures, Joanne Fedeyko, CEO at Connection Silicon Valley, and Ozlem Tumer Eke, Investment Director at Arya Women. Learn more at: https://community.igem.org/events/women-entrepreneurship-bootcamp/https://static.igem.org/peertube/streaming-playlists/hls/50647057-7cbd-4ba7-8f0a-ee0277a79bea/9b435414-933c-493e-9fdb-245bd8d0ac02-master.m3u8https://video.igem.org/videos/embed/aVM4E4QDLiWGFTUGuHHgWs8813082022-08-31T01:43:07.655ZYESiGEM CommunityNOhttps://video.igem.org/w/vaxmwnrC9kzwcBNGpjtu7bhttps://video.igem.org/lazy-static/thumbnails/150b2110-e189-4f5b-9e6e-279c1d544e7c.jpgDay 2 - WiSTEM Entrepreneurship Bootcamp 2022: The Journey of Female Founders and Workshop SeriesThe Women Entrepreneurship Bootcamp aims to encourage women to join SynBio entrepreneurship by building participants’ confidence in their start-up ideas, providing information on funding and pitching and discussing inspirational work by current female entrepreneurs. Here we explore The Journey of Female Founders with Inna Zaimenko, CEO at Deepli. Then, Emily Hicks, Co-founder and President at FredSENSE, and Windi Muziasar, CEO and Founder at Resistomap, ran the The Discover, Decipher and Develop Workshops. Learn more at: https://community.igem.org/events/women-entrepreneurship-bootcamp/https://static.igem.org/peertube/streaming-playlists/hls/ec2e099e-29f3-43d1-a44b-ad58c59ebe0e/8df9fec9-997a-47ab-86dd-6840d2b886a4-master.m3u8https://video.igem.org/videos/embed/vaxmwnrC9kzwcBNGpjtu7b9028062022-08-31T01:52:21.150ZYESiGEM CommunityNOhttps://video.igem.org/w/aWdYFBv2gkKMuTKjAh4ciehttps://video.igem.org/lazy-static/thumbnails/23e9b2b5-0602-4091-b76f-90cc35f8da24.jpgDay 3 - WiSTEM Entrepreneurship Bootcamp 2022: iGEM EPIC Breakout Session and Building Confidence...The Women Entrepreneurship Bootcamp aims to encourage women to join SynBio entrepreneurship by building participants’ confidence in their start-up ideas, providing information on funding and pitching and discussing inspirational work by current female entrepreneurs. iGEM EPIC hosted a breakout session and hosted the Growth Measurement Workships. Sara Hegy, Coach at Sara Hegy Coaching, Priya Dharshana Ramani, Co-founder at Haemetrics, and Isabella Iglesias-Musachio CEO and Founder at Bosque Foods all spoke at the Building Confidence as a Female Founder panel discussion, hosted by Jina Bae, WiSTEM member. Learn more at: https://community.igem.org/events/women-entrepreneurship-bootcamp/https://static.igem.org/peertube/streaming-playlists/hls/507468b8-3198-43b9-842e-640cec3a0e2b/4606cb5b-a5c0-42cb-aeea-21293868f606-master.m3u8https://video.igem.org/videos/embed/aWdYFBv2gkKMuTKjAh4cie5855032022-08-31T02:10:55.958ZYESiGEM CommunityNOhttps://video.igem.org/w/75cyqxtPYrkAPjEJVz82Rqhttps://video.igem.org/lazy-static/thumbnails/9c4f5a6b-1960-412d-a213-1403f497ed2c.jpgDay 4 - WiSTEM Entrepreneurship Bootcamp 2022: iGEM EPIC Programs and Growth Measurement WorkshopsThe Women Entrepreneurship Bootcamp aims to encourage women to join SynBio entrepreneurship by building participants’ confidence in their start-up ideas, providing information on funding and pitching and discussing inspirational work by current female entrepreneurs. To wrap up we interviewed Nadine Bongaertz-Duportet, CIO of Gourmey and Board of Directors at Hello Tomorrow, about the Leading Era of WiSTEm and saw pitches from our participants. Specials awards go to the Metroverse team for pitching a HIV diagnostic kit and the AID team for solving the algal waste problem in India (winning the Best Creative Pitch award and the Best Innovative Idea award respectively). Learn more at: https://community.igem.org/events/women-entrepreneurship-bootcamp/https://static.igem.org/peertube/streaming-playlists/hls/312cee37-ce11-4ba1-8584-3038334a361e/c28ea054-d94c-42b3-ac68-772a7c063411-master.m3u8https://video.igem.org/videos/embed/75cyqxtPYrkAPjEJVz82Rq2216012022-08-31T02:18:54.792ZYESiGEM CommunityNOhttps://video.igem.org/w/5iD5aPZDNkiiezQcNeH42ohttps://video.igem.org/lazy-static/thumbnails/f8a2e832-da05-49cf-a41a-d779f33d6a84.jpgFudan: Rester (2022) - Project Promotion [English]**Title:** Rester **Description:** In recent years, our society is under massive pressure from work, and middle-aged people, especially those who work in office buildings, are too busy to pay sufficient attention to their health status. In a cosmopolitan city like Shanghai, it is common to stay up late and have an abnormal balance of work and rest. As the most external health indicator of the human body, the skin is a reflection of whether the body is functioning well or not. A lab technician in Shanghai noticed her worsened skin state, which motivated her to dive deeper into skincare product manufacturing in our promotion video. Our team's project is centered on Vitamin A, an effective reagent but with possible side effects in skincare products. Through the synthesis of modified cell factories, we can obtain the target derivatives of Vitamin A that overcome the defects of normally and frequently applied Vitamin A forms in the skincare market, so that people from all walks of life who not only face great work and mental stress, but also have skin care problems can raise their awareness of proper skincare, and gain knowledge of skincare product selection, and ultimately allow consumers to overcome the "middle-age crisis" and regain confidence in their career and life. [Wiki](https://2022.igem.wiki/fudan)https://static.igem.org/peertube/streaming-playlists/hls/22db0b8b-261c-43fb-8653-d94b549e7074/7649ab16-4482-40dd-8d1e-2320c2ae999f-master.m3u8https://video.igem.org/videos/embed/5iD5aPZDNkiiezQcNeH42o12001152022-08-31T03:05:04.891ZBiomanufacturingVitaminASkincareYES2022 Project PromotionsNOhttps://video.igem.org/w/aTCzWb23ev4i3yfk8dAmPthttps://video.igem.org/lazy-static/thumbnails/b4626e98-6735-44cd-82e1-5f7ba67ab6fa.jpgNanjing_NFLS: Microcystin Terminator (2022) - Project Promotion [English]**Title:** Microcystin Terminator **Description:** Cyanotoxins are secondary metabolites of cyanobacteria, among which Microcystin-LR is the most toxic. MC-LR has been listed as a Class 2B carcinogen and pose a severe threat to ecological stability and public health. We use bioremediation to eliminate MC-LR by using MlrA. It linearizes the cyclic toxin by breaking a peptide bond. The product, linearized MC-LR, is 2000 times less toxic. To optimize the gene expression, we link mlrA to inaK, producing an cell-surface display system of the enzyme. [Wiki](https://2022.igem.wiki/nanjing-nfls)https://static.igem.org/peertube/streaming-playlists/hls/5017b9ff-d3c0-4d36-9508-f99dee5268c1/50c6c7df-02c6-417d-9eee-650559a576d5-master.m3u8https://video.igem.org/videos/embed/aTCzWb23ev4i3yfk8dAmPt1180582022-08-31T03:38:29.454ZAlgaeToxinFreshwaterBioremediationMicrocystinCyanobacteriaMlrAYES2022 Project PromotionsNOhttps://video.igem.org/w/9PRKUXAzWN5ftq7LWEaoL6https://video.igem.org/lazy-static/thumbnails/9f709aa3-30a3-48a7-afe7-c942d63b7083.jpgToronto: On Site Diagnostic Tool for Oak Wilt Disease using LAMP (2022) - Project Promotion [Engl...**Title:** On Site Diagnostic Tool for Oak Wilt Disease using LAMP **Description:** Oak Wilt is a fungal disease invading millions of Oak trees across North America. It can devastate forests with no viable treatment available. Therefore, early detection of this disease is critical for timely containment. iGEM Toronto is developing a rapid diagnostic tool which can detect the Oak Wilt fungal DNA from samples on-site in 30-50 min. Our device will indicate positive results through colour change detectable by eye. Wiki link: https://2022.igem.wiki/toronto Instagram: https://www.instagram.com/igemtoronto/ Facebook: https://www.facebook.com/iGEMToronto [Wiki](https://2022.igem.wiki/toronto)https://static.igem.org/peertube/streaming-playlists/hls/4777bafa-9192-4a38-a4e4-ab3f8173f69d/d93f2632-4455-46c4-82e2-7b28dfe502f3-master.m3u8https://video.igem.org/videos/embed/9PRKUXAzWN5ftq7LWEaoL61200542022-08-31T04:19:15.010ZDNADetectionCanadaDiagnosticTreeYES2022 Project PromotionsNOhttps://video.igem.org/w/sbibiPf6qKyQUtxQqGFoKFhttps://video.igem.org/lazy-static/thumbnails/b0298865-e166-4f1b-ba52-debb8b779ca4.jpgTechnion-Israel: Angel Roots (2022) - Project Promotion [English]**Title:** Angel Roots **Description:** Decursin is a compound with many contributions in the medical field, and was recently found to reduce chemotherapy-induced hair loss. However, it is derived from Angelica Gigas, a seasonal plant that grows exclusively in China and Korea, from which the extraction of the compound is inefficient and complicated, making Decursin expensive. In Angel Roots, we want to integrate the synthesis pathway of Decursin into bacteria, aiming to produce it efficiently. [Wiki](https://2022.igem.wiki/technion-israel)https://static.igem.org/peertube/streaming-playlists/hls/d3fda106-18ee-48cc-87f3-b440955e9d15/f91a8ade-03fe-49d6-8778-84e4a44d251e-master.m3u8https://video.igem.org/videos/embed/sbibiPf6qKyQUtxQqGFoKF12001942022-08-31T04:28:06.859ZExtractionDecursinHairLossManufacturingAngelicaGigasYES2022 Project PromotionsNOhttps://video.igem.org/w/sGUqZr2rBWq4wEHrdBcUXAhttps://video.igem.org/lazy-static/thumbnails/85b2d87a-6ada-4385-98e5-e35bbccb3463.jpgCPU_Nanjing: Manufacture Orthophosphate to Make Terrestrial Planets More Habitable (2022) - Proje...**Title:** Manufacture Orthophosphate to Make Terrestrial Planets More Habitable **Description:** Earth has been in a process of aging. Every time we look up at the galaxy, we can’t help considering about turning the migration to terrestrial planets to be the ultimate choice for future life reproduction, hoping that there exist elements necessary for life, such as carbon, nitrogen, oxygen, and phosphorus. Given the differences in their biogeochemical cycle, we are more concerned with phosphorus. The meteorites that left on the earth have brought us good news that there is a considerable amount of phosphorus there. However, it is mainly in the form of lower oxidation state phosphite or hypophosphite, which is difficult to be further oxidized to bio-assimilable orthophosphates; even worse, they are toxic to living creatures. Fortunately, thanks to the diversity of microorganisms on Earth, a few bacteria possess the phosphite oxidase, capable of oxidizing phosphite to orthophosphate. However, following this amazing clue, we found that these bacteria do so only to meet their own growth needs. Once there is enough phosphorus, they are unwilling to spend one more second for this process. We realize that bacteria are "passive", or even "lazy", in the matter of phosphite oxidation. Now, the main challenge is clear: how can we spur bacteria to overcome this "inherent laziness" by means of synthetic biology, using phosphite as a raw material to produce orthophosphate to meet various needs in agriculture, industry and daily lives after migrating to terrestrial planets? This is exactly the topic which our team, CPU_Nanjing, is striving for. By doing so, we can accelerate the evolution of phosphorus on terrestrial planets, contributing to the process of transforming terrestrial planets into habitable ones. So, we took this mission back to the lab and started this year's iGEM journey. [Wiki](https://2022.igem.wiki/cpu-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/d843aae9-b584-4efc-b373-c1588aab8d10/4607d711-c97a-4aca-bb78-0be36d6b43f6-master.m3u8https://video.igem.org/videos/embed/sGUqZr2rBWq4wEHrdBcUXA1215622022-08-31T08:52:32.630ZPhosphitePhosphorusEvolutionManufacturePlanetaryHabitabilityYES2022 Project PromotionsNOhttps://video.igem.org/w/2sdpuZDnxvLAm8uSYXdRgahttps://video.igem.org/lazy-static/thumbnails/e6b8dd74-e062-40d7-b784-ad8bfbdd9d9f.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [English]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/0bc21f23-aadb-407e-b726-ad2eebbbd023/80dfeb19-8d20-4e39-9c59-68c090620ceb-master.m3u8https://video.igem.org/videos/embed/2sdpuZDnxvLAm8uSYXdRga1180362022-08-31T08:55:05.330ZSyntheticBiologyBrainAlzheimer'sDiseaseNeurodegenerationYES2022 Project PromotionsNOhttps://video.igem.org/w/bAauQTU55NAH849cRH61uShttps://video.igem.org/lazy-static/thumbnails/ab6e4702-aa54-4b74-b82c-416794cda2d7.jpgTU_Dresden: WunderBand – a bioresponsive wound dressing for chronic wounds (2022) - Project Promo...**Title:** WunderBand – a bioresponsive wound dressing for chronic wounds **Description:** Chronic wounds are wounds that can’t progress through normal stages of healing. Each year more people develop such wounds causing the decrease in their quality of life. Our iGEM team aims to tackle this issue by developing a wound dressing. It consists of two modules targeted at agents that hinder healing: the depletion of growth factors, and bacterial infection. By combining growth factors produced in yeast and bacteriophages into a hydrogel, we strive to improve the healing of chronic wounds. [Wiki](https://2022.igem.wiki/tu-dresden)https://static.igem.org/peertube/streaming-playlists/hls/55c08717-02b4-4c21-9257-e14c78d60a42/350fe01e-8c89-4aed-913d-ae33820b324f-master.m3u8https://video.igem.org/videos/embed/bAauQTU55NAH849cRH61uS12002512022-08-31T09:14:03.390ZBacteriophagesHydrogelYeastTherapeuticsYES2022 Project PromotionsNOhttps://video.igem.org/w/bLHUaLa4eyddMojzYnUh9jhttps://video.igem.org/lazy-static/thumbnails/b8264f69-9bb0-4152-a24e-6dabd7a94214.jpgIvyMaker-China: The Fully-armed PET Buster (2022) - Project Promotion [English]**Title:** The Fully-armed PET Buster **Description:** Based on previous studies, we developed a surface display system for Candida tropicalis. We used the system to display PETase and MHETase separately, and found that both enzymes were active and had obvious degradation effects on PET film and powder. To increase the effectiveness and convenience of the degradation of PET plastic, we plan to display MHETase and PETase at the same time. Hence, our goal is to develop a self-assembled multi-enzyme display system of Candida tropicalis. To attain co-display, we combined our display system with two selective protein binding systems, SpyTag-SpyCatcher and SnoopTag-SnoopCatcher. To improve PET plastic degradation efficiency, we imitated cellulosome and controlled the ratio and display sequence of PETase and MHETase enzymes. Additionally, the surface display multi-enzyme self-assembly system that we developed can be applied to fields other than plastic degradation. [Wiki](https://2022.igem.wiki/ivymaker-china)https://static.igem.org/peertube/streaming-playlists/hls/5739ef16-65c3-4aec-ab3d-df347e03b4d2/c9af68ce-aaf7-4ff1-b928-f65de8b5a3d4-master.m3u8https://video.igem.org/videos/embed/bLHUaLa4eyddMojzYnUh9j1200602022-08-31T10:00:08.372ZPET,CATCHER-TAGSYSTEMYES2022 Project PromotionsNOhttps://video.igem.org/w/wheFE8sp3d1Y7ZJw6GFxmshttps://video.igem.org/lazy-static/thumbnails/c587613e-b558-40d3-af85-042d28327ce3.jpgThinker-Shenzhen: To improve the anti fungal activity of chitinase to cure derma... (2022) - Proj...**Title:** To improve the anti fungal activity of chitinase to cure dermatomycosis **Description:** Fungal dermatosis is a kind of skin disease caused by fungi. It is urgent to find an innovative and efficient way to treat fungal skin diseases. To kill the fungus on the skin, we intend to use chitinase to degrade the chitins in the fungal cell wall to destroy its physiological structure. However, most common chitinases on the market have only one degradation domain and are therefore weakly bound to work efficiently. To solve this problem, our team used synthetic biology methods to combine the chitinase binding domains extracted from Bacillus cereus and Bacillus thuringiensis at the nitrogen and carbon ends of Streptomyces alfalfa chitinase respectively, to obtain the modified chitinase with the strong binding ability so it can relieve and treat fungal skin diseases more efficiently and quickly. [Wiki](https://2022.igem.wiki/thinker-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/f5367e37-26ee-478c-aade-df6dae299836/36de46c2-f366-453a-b47b-c5156b3f793e-master.m3u8https://video.igem.org/videos/embed/wheFE8sp3d1Y7ZJw6GFxms1200312022-08-31T11:07:44.915ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ci4oTE2HRKAJx9bgj3vTAxhttps://video.igem.org/lazy-static/thumbnails/24b53709-c26a-435c-85d2-135b430051d1.jpgPuiChing_Macau: Supporting Hydroponic Farming Using Engineered Bacteria : Hormon... (2022) - Proj...**Title:** Supporting Hydroponic Farming Using Engineered Bacteria : Hormone-Targeting and pH-Adjusting systems **Description:** Climate change, together with artificial crisis has significantly impacted our global food supply. Many developing urban centres saw food prices skyrocket while the flow of essential produce dwindles. In our investigation of this local and global issue, we propose to improve the yield of hydroponics by adopting hormone binding domains and pH adjusting systems to engineer E. coli. The autonomous and compact nature of our proposal could see real-world use in farming, urban greening and beyond. [Wiki](https://2022.igem.wiki/puiching-macau)https://static.igem.org/peertube/streaming-playlists/hls/5b7642ea-421a-45cb-94c1-d2223d5918a7/49d28159-9583-4368-a8ad-f32f65cc9df3-master.m3u8https://video.igem.org/videos/embed/ci4oTE2HRKAJx9bgj3vTAx12104412022-08-31T11:12:35.341ZAutonomyClimagechangeHydroponicsFoodsupplyUrbanfarmingYES2022 Project PromotionsNOhttps://video.igem.org/w/1VhmmVS3Y4Yj11fXVkaRMNhttps://video.igem.org/lazy-static/thumbnails/ebd6e440-778d-40f5-bc17-e66f8b6b3d5c.jpgLZU-HS-China-B: Recombinant probiotics reduce alcohol-induced damage in humans (2022) - Project P...**Title:** Recombinant probiotics reduce alcohol-induced damage in humans **Description:** In our society, there is a group of people who work in the alcohol industry and have to drink alcohol every day because of their work. The excessive consumption of alcohol can cause damage to health, and coupled with the fact that companies do not provide them with certain safety measures, the health of these people is not guaranteed. Escherichia Nissle 1917 (EcN) has been widely demonstrated to be a safe oral probiotic. In this study, we genetically modified EcN expressing ethanol dehydrogenase gene, acetaldehyde dehydrogenase gene, NAD synthase gene and NADH oxidase gene. By expressing the NAD synthase and NADH oxidase genes, the efficiency of ethanol dehydrogenase and acetaldehyde dehydrogenase was increased, and thus the rate of alcohol decomposition was increased. Finally, we constructed an intestinal probiotic with high efficiency in alcohol catabolism to help the alcoholic beverage workers to protect their health. [Wiki](https://2022.igem.wiki/lzu-hs-china-b)https://static.igem.org/peertube/streaming-playlists/hls/07707f1a-c041-4bd7-9f9b-b6a0bb24cebc/7cd3ef1d-ae70-48db-a61d-d10bb327dc3f-master.m3u8https://video.igem.org/videos/embed/1VhmmVS3Y4Yj11fXVkaRMN1200502022-08-31T11:20:18.701ZBodyHealthEscherichiaColiRecombinantProbioticsYES2022 Project PromotionsNOhttps://video.igem.org/w/aN3JD1y429dRK7kAuY8QdBhttps://video.igem.org/lazy-static/thumbnails/944853d0-6439-4efc-b967-e1c10e3fe17d.jpgHiZJU-China: Teafender——a story about tea defending (2022) - Project Promotion [English]**Title:** Teafender——a story about tea defending **Description:** We are Team HiZJU-China. Our theme this year is the prevention and cure of Toxoptera aurantii by using its sex pheromone and the project is called Teafender from two nouns tea and defender. Toxoptera aurantii, also known as tea aphid, is a kind of insect of Homoptera, which is widely distributed in Anhui, Jiangsu, Guangdong province and so on. In addition to harming tea trees and oil tea,it also do damage to citrus, litchi, bananas, etc. In our project, we will introduce the gene of the G protein-coupled receptor HarmOR10 from Helicoverpa armigera into yeast. Then we will use our engineered bacteria to detect benzaldehyde secreted by tea trees after Toxoptera aurantii infestation and release the sex pheromones of Toxoptera aurantii whose composition including nepetalactone and nepetalactol. We also hope that the nepetalactone and nepetalactol are in a ratio which is as close as possible to the ratio of the components of the tea aphid sex pheromone. This project is aimed at Interfering with the mating of Toxoptera aurantii and attracting natural enemies of Toxoptera aurantii, which will ultimately reduce the infestation of Toxoptera aurantii in tea plantations. Except the main parts,the project also includes field trips to tea plantations, questionnaire surveys of consumers and tea farmers, and science popularization activities about synthetic biology, etc. Once we have completed our laboratory work, we will also conduct field trials to formalize our project in the field and promote its application. #agriculture #tea #organic #yeast [Wiki](https://2022.igem.wiki/hizju-china)https://static.igem.org/peertube/streaming-playlists/hls/4f50259e-7c4b-4b9a-95ee-7badc1842db3/6755ca78-99e7-489e-882c-05a66541ab15-master.m3u8https://video.igem.org/videos/embed/aN3JD1y429dRK7kAuY8QdB1200302022-08-31T13:00:29.404ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1TmBcacr8XifPZM9ASYDxvhttps://video.igem.org/lazy-static/thumbnails/9b111e1d-7c61-4880-9b41-8c1cf47bd08e.jpgWarwick: Pyrethroid Remediation (2022) - Project Promotion [English]**Title:** Pyrethroid Remediation **Description:** Pyrethroids make up 84% of all insecticide use in the UK, and are used by farmers to protect their crops from pests. However, the compound is highly toxic to fish and aquatic invertebrates. To preserve both agriculture productivity and environmental sustainability, PyRe has developed a 2-part pesticide remediation technique. The technique involves using an aptamer-based biosensor as a cheaper alternative to existing detection methods; followed by degradation using a whole cell E. coli biocatalyst (including a kill switch). Follow Team PyRe on our social media! [Wiki](https://2022.igem.wiki/warwick)https://static.igem.org/peertube/streaming-playlists/hls/072ba1b3-2e75-43f2-9119-c3c8f8462bf7/eeb21304-1926-4fde-bff6-dacbcb3e924d-master.m3u8https://video.igem.org/videos/embed/1TmBcacr8XifPZM9ASYDxv1100162022-08-31T13:04:11.247ZYES2022 Project PromotionsNOhttps://video.igem.org/w/aReHtX5NKmkDrLUus9Nanuhttps://video.igem.org/lazy-static/thumbnails/d4c4f130-f20c-49dc-a20a-f4b60e51f8ad.jpgBNUZH-China: In-vivo Biodegradable Skin Regeneration Scaffold System Based On Ba... (2022) - Proj...**Title:** In-vivo Biodegradable Skin Regeneration Scaffold System Based On Bacterial Cellulose **Description:** The 2022 BNUZH-China team successfully built an in-vivo biodegradable skin regeneration scaffold system(BCAID) based on bacterial cellulose to achieve a series of functions, including healing promotion, antibacterial ability, self-degradation and self-apoptosis, which assists the accelerated repair of whole-layer defected skin and adapts to new therapeutic pathways and application scenarios. [Wiki](https://2022.igem.wiki/bnuzh-china)https://static.igem.org/peertube/streaming-playlists/hls/4fc2251c-7241-4957-81f6-e6fc05c8fc12/2d048d03-918e-4617-a6cb-e8c637816e12-master.m3u8https://video.igem.org/videos/embed/aReHtX5NKmkDrLUus9Nanu1190342022-08-31T13:54:37.670ZYES2022 Project PromotionsNOhttps://video.igem.org/w/o5QDdZ7V4XGqV58WKvA9K1https://video.igem.org/lazy-static/thumbnails/6a63d463-a663-45d1-bb4a-4d422e118c78.jpgNJMU-China: Engine of Starlight: Never Doubt Thou Stars Are Fire (2022) - Project Promotion [Engl...**Title:** Engine of Starlight: Never Doubt Thou Stars Are Fire **Description:** Autism spectrum disorder (ASD) is a group of neurodevelopmental disorders characterized by repetitive behaviors and impairments in social communication and interaction. There is a dramatic increase in prevalence over the past few decades. In China, the children with ASD were called children from the stars. In recent years, the discovery and investigation of the microbiota-gut-brain axis have made it possible to treat neurological disorders such as ASD via gut microbiota-mediated metabolites.The 2022 NJMU-China team continues to use synthetic biology to engineer bacteria and develop a safe and practical drug delivery system for patients with ASD. Emerging evidence indicates that mitochondrial dysfunction is associated with the development of autism. Our design consists of four systems that target mitochondrial dysfunction. Firstly, it has been demonstrated that NAD+ improves mitochondrial activity. In system one, the engineering bacteria boost NAD+ expression by overexpressing the pncA gene. Secondly, ingested heavy metals frequently target mitochondria. In System two, the engineering bacteria sense the heavy metals and product metallothionein (MT) to adsorb heavy metals. Thirdly, in System three, we try to help the engineered bacteria reach the gut and function properly. Finally, the elevated level of lactic acid is the most common marker of mitochondrial dysfunction. In system four, the engineering bacteria can sense lactic acid, express the galactosidase, and react with the galactoside on the test paper. Currently, the 2022 NJMU-China team is performing experiments to confirm and measure the four systems’ exciting functions. Hopefully, in the future, more people will study, develop, and improve therapy and diagnostic approaches based on synthetic biology to help “children from the stars”. [Wiki](https://2022.igem.wiki/njmu-china)https://static.igem.org/peertube/streaming-playlists/hls/b2d6008e-1df2-4971-85e4-4cc195e1f9de/40adc4b5-ee21-4d55-a30d-64aa439470bb-master.m3u8https://video.igem.org/videos/embed/o5QDdZ7V4XGqV58WKvA9K111901442022-08-31T14:14:09.004ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8dcRiXXchXve5ttTLTfQuShttps://video.igem.org/lazy-static/thumbnails/68897fe8-7e95-46d5-a6c7-4b6d8fe500d6.jpgiBowu-China: Going Biosynthetic: A brief introduction to our innovations in Astr... (2022) - Proj...**Title:** Going Biosynthetic: A brief introduction to our innovations in Astragalin synthesis **Description:** Starting with one of our teammate's questions, we presented a brief introduction of our project this year. [Wiki](https://2022.igem.wiki/ibowu-china)https://static.igem.org/peertube/streaming-playlists/hls/3a6432e3-98a8-477d-8d86-b992f17ce66a/8bde1b49-d3ee-48dc-9319-42ea93674df7-master.m3u8https://video.igem.org/videos/embed/8dcRiXXchXve5ttTLTfQuS1130242022-08-31T14:45:43.548ZYES2022 Project PromotionsNOhttps://video.igem.org/w/cDC9FfQis2VNAYdf8fqCPShttps://video.igem.org/lazy-static/thumbnails/f7724595-cdf7-4563-bd92-530356907c2d.jpgUM_Macau: AcidOceanus (2022) - Project Promotion [English]**Title:** AcidOceanus **Description:** The problem of freshwater and ocean water acidification remains to be understated. Such acidification leads to reduction of biodiversity, causes changes to habitat for fish, resilience of reef systems and beyond. Thus, we named our project “AcidOceanus”, which adapts a formidable bacteria to carry a pump that can absorb protons to increase the pH of the environment. [Wiki](https://2022.igem.wiki/um-macau)https://static.igem.org/peertube/streaming-playlists/hls/5e55529e-9bbb-43e4-ac8a-344dba3d1768/8a3b3925-2858-43ac-ab5a-ab23007e75de-master.m3u8https://video.igem.org/videos/embed/cDC9FfQis2VNAYdf8fqCPS1170652022-08-31T15:03:00.777ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nzPov79jypgD8Ax4yVmmbEhttps://video.igem.org/lazy-static/thumbnails/f9e31e12-582e-41ca-8d08-2b9c47451b2e.jpgHUST-China: REE miner -- An absorption kit of rare earth element (2022) - Project Promotion [Engl...**Title:** REE miner -- An absorption kit of rare earth element **Description:** The 2022 project of HUST-China——REE miner, is an optimized absorption kit of rare earth elements. Rare earth elements are of great significance to human society as a kind of non-renewable resource, so there is a great global demand of them. However, it can cause deleterious effects on our health and environment. Based on the project we accomplished in 2017, we design a brand-new kit to solve this problem, it can purify the environment by collecting these precious resources. [Wiki](https://2022.igem.wiki/hust-china)https://static.igem.org/peertube/streaming-playlists/hls/aec8a8fe-e3b1-4f92-9db0-b3a6fe77e8ea/65b537b9-4e8a-4618-8470-6c0dd90ce962-master.m3u8https://video.igem.org/videos/embed/nzPov79jypgD8Ax4yVmmbE1210552022-08-31T15:58:14.126ZYES2022 Project PromotionsNOhttps://video.igem.org/w/d6hWV3dJdfC4ztAnjqKqVahttps://video.igem.org/lazy-static/thumbnails/b2e91aa6-b53b-4f2f-a453-c345933b232e.jpgQueens_Canada: LAMPogen (2022) - Project Promotion [English]**Title:** LAMPogen **Description:** Canadian Indigenous communities have been suffering from contaminated drinking water for decades now without a reliable diagnostic system for drinking water. QGEM 2022 is working to develop an at home water pathogen detection device to test for E. coli, Salmonella, Shigella and Campylobacter in drinking water. We are using a nucleic acid amplification technique called Loop Mediated Isothermal Amplification or LAMP and are engineering a new polymerase. [Wiki](https://2022.igem.wiki/queens-canada)https://static.igem.org/peertube/streaming-playlists/hls/61ead39c-8451-45bc-b69c-4fb995653423/5efc37ac-b7de-4b02-b415-a9de470a5dea-master.m3u8https://video.igem.org/videos/embed/d6hWV3dJdfC4ztAnjqKqVa1200792022-08-31T16:12:28.136ZDiagnosticsWaterLAMPIndigenousYES2022 Project PromotionsNOhttps://video.igem.org/w/5KBzFtVdRrkqebzMCUn7A3https://video.igem.org/lazy-static/thumbnails/8112bb8a-2720-4ed8-8599-8173d0f22d61.jpgSZU-China: RiceAide - The Savior of Rice Sheath Blight (2022) - Project Promotion [English]**Title:** RiceAide - The Savior of Rice Sheath Blight **Description:** Every year rice sheath blight is rampant in southern China and is bound to cause great damage. Students from SZU-China designed a comprehensive solution, which involves prevention, detection and treatment, aiming to deal with rice sheath blight. They are rewriting the fate of rice farmers and planting their dreams through RiceAide right here, right now. [Wiki](https://2022.igem.wiki/szu-china)https://static.igem.org/peertube/streaming-playlists/hls/267b76d1-a843-4b89-8d25-b2b347c0c556/5f2b3e43-168b-4cc1-979b-12899e33122d-master.m3u8https://video.igem.org/videos/embed/5KBzFtVdRrkqebzMCUn7A312001482022-08-31T16:37:28.681ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3HsUoDtHgnEY99YPMTfmUXhttps://video.igem.org/lazy-static/thumbnails/35017f9d-66a5-46b1-820c-0da84612cb6c.jpgWorldshaper-HZBIOX: Boost Colorectal Cancer Treatment: Arginine Probiotics (2022) - Project Promo...**Title:** Boost Colorectal Cancer Treatment: Arginine Probiotics **Description:** Colon cancer is a relatively common digestive tract malignant tumor with a high mortality rate and is one of the three major cancers in the world. The main idea of our project is to engineer the probiotics EcN1917 to continuously produce a large amount of L-arginine in tumors by introducing the ArgJ gene and deleting the ArgR gene. It proved that these arginine probiotics could help to overcome immunotherapy resistance to colon cancer. [Wiki](https://2022.igem.wiki/worldshaper-hzbiox)https://static.igem.org/peertube/streaming-playlists/hls/15fc5a04-4442-4203-9e94-a6daaa4e120f/e852a0e6-1d55-4b9c-967c-ed7538da7375-master.m3u8https://video.igem.org/videos/embed/3HsUoDtHgnEY99YPMTfmUX980382022-08-31T18:58:21.884ZYES2022 Project PromotionsNOhttps://video.igem.org/w/uGgtnTZb9tcH5u94TZoKMMhttps://video.igem.org/lazy-static/thumbnails/60709ac2-2aaf-4448-a4c7-a2d233f3c951.jpgWorldshaper-HZ: A portable breast cancer diagnosis kit based on CRISPR-Cas techn... (2022) - Proj...**Title:** A portable breast cancer diagnosis kit based on CRISPR-Cas technology **Description:** Through the story of a girl, Cecilia, we introduce the original aspiration that boosters us to dig deeper into breast cancer, and the theoretical basis of our portable early detection kit design. We utilize the CRISPR-Cas12a system to detect a stable biomarker in blood: circRNAs, to achieve early diagnosis of breast cancer. We aim to reduce the mortality rate of devastating diseases by providing a convenient method to screen them early. [Wiki](https://2022.igem.wiki/worldshaper-hz)https://static.igem.org/peertube/streaming-playlists/hls/e85f2b12-bca1-4c4d-8d30-5d1bfe1eed0b/e2b7f716-4ca3-40a8-ac19-41495466fbd0-master.m3u8https://video.igem.org/videos/embed/uGgtnTZb9tcH5u94TZoKMM1030682022-08-31T19:08:37.016ZYES2022 Project PromotionsNOhttps://video.igem.org/w/onuvV3TBbGY1gna2KMLjAvhttps://video.igem.org/lazy-static/thumbnails/765788c6-3d2a-4980-b47b-88a2f3dadf70.jpgUPNAvarra_Spain: Zero: Circular Economy Strategy Against Depression (2022) - Project Promotion [E...**Title:** Zero: Circular Economy Strategy Against Depression **Description:** A Circular Economy Strategy to fight Depression [Wiki](https://2022.igem.wiki/upnavarra-spain)https://static.igem.org/peertube/streaming-playlists/hls/b5293e3f-8f20-4acc-bd90-72fa5998a0a9/226d4824-c9d2-4ff6-9da2-8de9c71a755a-master.m3u8https://video.igem.org/videos/embed/onuvV3TBbGY1gna2KMLjAv730262022-08-31T19:09:36.119ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nM1Lu6ehscMbv8jf33Xw7khttps://video.igem.org/lazy-static/thumbnails/3e7d7682-d776-47f7-863d-8d2c784d3a43.jpgThessaly: Navanthus (2022) - Project Promotion [English]**Title:** Navanthus **Description:** In Thessaly, lake Karla and Pineios river are facing intense anthropogenic eutrophication, as seen in the video's real footage, like other freshwater ecosystems worldwide. Eutrophication has detrimental impacts on water quality, public health, biodiversity, economic stability, and climate change. iGEM Thessaly 2022 Team aims to combat the phenomenon with Navanthus project: a monitoring and phytoremediation approach against eutrophication that provides a sustainable solution for protecting aquatic ecosystems. [Wiki](https://2022.igem.wiki/thessaly)https://static.igem.org/peertube/streaming-playlists/hls/b058daab-0a9b-4522-8b50-be50d2e73d1f/3bf96140-bb2c-4533-8bbe-fd1b355f39bd-master.m3u8https://video.igem.org/videos/embed/nM1Lu6ehscMbv8jf33Xw7k12004202022-08-31T21:05:49.772ZYES2022 Project PromotionsNOhttps://video.igem.org/w/pMxRhz8Lj4bZDVmuAunE5qhttps://video.igem.org/lazy-static/thumbnails/7fbebb74-2e42-4d50-afae-c9965e9d48cd.jpgUSP-EEL-Brazil: Honorato (2022) - Project Promotion [English]**Title:** Honorato **Description:** The Honorato (2022) project has as its main goal to produce an inhibitor for the enzyme jararhagin, which is present in the venom of Bothrops snakes. Thus, bleeding can be controlled more effectively with the use of this inhibitor. In addition, one of the main problems faced by injured people is the delay until the complete antiophidic serum is applied. Our project aims to act incisively on this point. [Wiki](https://2022.igem.wiki/usp-eel-brazil)https://static.igem.org/peertube/streaming-playlists/hls/c09e4974-c1f0-40f6-aede-c9990b0e02a0/37174bf6-06da-4bca-b110-931da303c200-master.m3u8https://video.igem.org/videos/embed/pMxRhz8Lj4bZDVmuAunE5q1150162022-08-31T22:55:44.704ZYES2022 Project PromotionsNOhttps://video.igem.org/w/7PwFRwU9mF52GWGChFdFbohttps://video.igem.org/lazy-static/thumbnails/2f4dbf99-7f95-4155-b248-d45e4e107ceb.jpgNFLS_Nanjing: No title (2022) - Project Promotion [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/nfls-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/3739b365-b652-467c-9ef7-ebb1ee8cb326/040f9092-9537-42e4-a1b8-353bb19efd2b-master.m3u8https://video.igem.org/videos/embed/7PwFRwU9mF52GWGChFdFbo1200152022-09-01T01:32:02.086ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sXwG1JCbDYhngnnGCNdYxxhttps://video.igem.org/lazy-static/thumbnails/08e7c761-6b0a-45a2-8f61-8e651857e7d7.jpgUManitoba: A smart bio-based device to monitor and control invasive zebra mussels (2022) - Projec...**Title:** A smart bio-based device to monitor and control invasive zebra mussels **Description:** Zebra mussels (Dreissena polymorpha) are an invasive species that threatens many bodies of water and affects communities across North America. Current control methods are harsh and temporarily effective, leaving lakes and rivers susceptible to off-target effects and the damage of zebra mussel infestations. We aim to create a bio-based device that delivers a selectively toxic anti-zebra mussel protein expressed only in the presence of zebra mussels. [Wiki](https://2022.igem.wiki/umanitoba)https://static.igem.org/peertube/streaming-playlists/hls/da4e6d02-4ca8-4251-a575-428eaf64a9c5/18a9703e-0e29-4053-9302-6e6a4123a69b-master.m3u8https://video.igem.org/videos/embed/sXwG1JCbDYhngnnGCNdYxx1180842022-09-01T01:40:17.132ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tcPqNQ5FXUK6CR91nF5cf9https://video.igem.org/lazy-static/thumbnails/1c6cdf26-212a-4cf3-b710-bfb9ed2e3236.jpgLZU-HS-China-C: Feed-additive of Bioengineering Strain with Surface-displayed La... (2022) - Proj...**Title:** Feed-additive of Bioengineering Strain with Surface-displayed Laccase Degrades Sulfadiazine in Manure **Description:** The excessive use and unregulated environmental discharge of antibiotics in poultry businesses have been a major causality behind superbugs. Our project focused on the degradation of sulfadiazine (SDZ), the most popular antibiotic used in the industry. We designed a whole cell biocatalyst that seeks to degrade SDZ through surface display technique of Lac 6, an enzyme binding to SDZ. By doing so, we wish to provide an alternative method of degrading sulfadiazine that better appeals to farmers. [Wiki](https://2022.igem.wiki/lzu-hs-china-c)https://static.igem.org/peertube/streaming-playlists/hls/dc4d2756-0d3c-4602-8c32-7d03dd19d8f0/3ef85356-c314-45ad-87e2-a578478fe4b6-master.m3u8https://video.igem.org/videos/embed/tcPqNQ5FXUK6CR91nF5cf91170512022-09-01T02:15:38.387ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4d21Ejvjh5bpKxBy3fpMGLhttps://video.igem.org/lazy-static/thumbnails/2619252b-41c0-408a-944e-67ddd2889c44.jpgTecCEM: Hydro Defense: Defending crops against disruptors (2022) - Project Promotion [English]**Title:** Hydro Defense: Defending crops against disruptors **Description:** Plasticizers are everywhere nowadays. Daily use water faces endocrine disrupting chemicals (EDCs) pollution, the affluent of contaminated water endangers agriculture quality on crops, impacting humans and animals as well. Our biosensor hardware system utilizes Human-estrogen receptor alpha (hERa_HD), which traps EDCs and allows their quantification. While our immobilized Laccases works on their enzymatic degradation. Our solutions are user-friendly, environmentally safe and easy to improve. [Wiki](https://2022.igem.wiki/teccem)https://static.igem.org/peertube/streaming-playlists/hls/19f8f6ea-3e3e-4773-a94f-fe34f3e954c8/fac343a4-a92c-4d9d-a2c1-8f9ae69ac9f7-master.m3u8https://video.igem.org/videos/embed/4d21Ejvjh5bpKxBy3fpMGL1200842022-09-01T02:44:55.246ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4h7QkpyWPouiFVN5bgmaCBhttps://video.igem.org/lazy-static/thumbnails/200a784b-c91f-4003-91de-cc545b5e90fc.jpgSCUT-China: FUNCDYES (Functional Dyes for Silk!) (2022) - Project Promotion [English]**Title:** FUNCDYES (Functional Dyes for Silk!) **Description:** Here comes SCUT-China 2022 with their unique ideas of dyes production using synthetic biology! By applying blue light-control system in Pichia Pastoris with optimization of genetic parts, the amazing cell factories are bound to present novel solution to silk dyeing — and absolutely more. #Dynamic Regulation #Terpenoids #Pichia Pastoris #Directed Evolution #Silk Dyeing [Wiki](https://2022.igem.wiki/scut-china)https://static.igem.org/peertube/streaming-playlists/hls/1a8b870a-8b2c-44cd-a254-8a6aeebff0df/14ee566e-160f-4e45-9588-947089e204ad-master.m3u8https://video.igem.org/videos/embed/4h7QkpyWPouiFVN5bgmaCB1200632022-09-01T02:51:48.205ZYES2022 Project PromotionsNOhttps://video.igem.org/w/aFxFYCMXEYwTyxJJYnmxzthttps://video.igem.org/lazy-static/thumbnails/a00c489b-4ef7-483a-b4cd-2b6b85c9e676.jpgSYSU-CHINA: Animalcule Co-Catalytic Engineering for Salidroside Synthesis (ACCESS) (2022) - Proje...**Title:** Animalcule Co-Catalytic Engineering for Salidroside Synthesis (ACCESS) **Description:** Salidroside, the active ingredient of Rhodiola, has proven to be effective for preventing high altitude illness. This year, we wish to achieve de novo synthesis of salidroside in E.coli as an alternative to Rhodiola extracts. We put forward the concept of co-catalysis. We also conduct direct evolution using TADR system. In all, we hope to make our contribution to manufacturing of salidroside and the protection of the natural environment. [Wiki](https://2022.igem.wiki/sysu-china)https://static.igem.org/peertube/streaming-playlists/hls/4e67c8be-f23c-476e-8dca-7686f3f7f1e1/b8974421-6b38-4b6c-be68-feab635cadff-master.m3u8https://video.igem.org/videos/embed/aFxFYCMXEYwTyxJJYnmxzt1200342022-09-01T03:05:58.659ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8scZpvv1TgRHGC9Jcp7eZ3https://video.igem.org/lazy-static/thumbnails/ab020d57-4156-48f3-bdb1-76ecc29b652b.jpgGYHS: Separation and Multiplex Colorimetric Detection of Foodborne Pathogens Bas... (2022) - Proj...**Title:** Separation and Multiplex Colorimetric Detection of Foodborne Pathogens Based on Phage Receptor Binding Protein **Description:** The continuous occurrence of food safety incidents caused by foodborne pathogens inspired us to develop a convenient and sensitive detection device. Based on phage receptor binding protein, a paper-based multiplex colorimetric detection method for four foodborne pathogens is developed. We hope our device could help to detect foodborne pathogens at home for people so that we eat healthier and safer. [Wiki](https://2022.igem.wiki/gyhs)https://static.igem.org/peertube/streaming-playlists/hls/3c58b294-dd4a-4a9d-8d25-0636cc7af980/5c3ce235-836b-48a8-b0bf-1998f0baaffe-master.m3u8https://video.igem.org/videos/embed/8scZpvv1TgRHGC9Jcp7eZ31190392022-09-01T03:31:54.674ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sH1MEZ19iRQhGkxcwCHNNahttps://video.igem.org/lazy-static/thumbnails/9e48bf51-2d31-4595-b877-54b9f2eba34b.jpgCPU_CHINA: Cancer Stalker (2022) - Project Promotion [English]**Title:** Cancer Stalker **Description:** After extracting the blood sample, the specific lncRNA in it will be isothermal amplified, which will activate cas14 protein. Its non-specific side branch cleavage activity will cleave the DNA hydrogel embedded with amylase in advance to release amylase and hydrolyze free amylose. Finally, the content of specific lncRNA in sample can be predicted by quantifying the hydrolysate with a blood glucose meter. [Wiki](https://2022.igem.wiki/cpu-china)https://static.igem.org/peertube/streaming-playlists/hls/d84795c3-6cd3-48b7-8cc3-1e4f82c0d395/cb37f271-d03c-410e-92e8-6a53e3bbe351-master.m3u8https://video.igem.org/videos/embed/sH1MEZ19iRQhGkxcwCHNNa12001222022-09-01T03:51:13.189ZYES2022 Project PromotionsNOhttps://video.igem.org/w/aycSaUr1RZR4SL4pAsZTuvhttps://video.igem.org/lazy-static/thumbnails/186c8be1-2552-48ff-b7ff-b26c5981e47d.jpgNEFU_China: Standardized DNA assembly strategy for saccharomyces cerevisiae (2022) - Project Prom...**Title:** Standardized DNA assembly strategy for saccharomyces cerevisiae **Description:** We NEFU_China provide an efficient platform for DNA assembly. We take advantage of the different characteristics of the type IIS restriction enzyme recognition site and cleavage site, so that biological parts can be rationally designed and can conduct an efficient one-pot reaction for both cleavage and ligation, and on top of that we introduced machine learning and fully automated hardware, working on a High Accurate, Modular DNA Assembly strategy. [Wiki](https://2022.igem.wiki/nefu-china)https://static.igem.org/peertube/streaming-playlists/hls/4d615c53-d231-450f-b4d2-26c17afa3da9/acfc38cf-6afb-4221-a560-c230bcc0f0c0-master.m3u8https://video.igem.org/videos/embed/aycSaUr1RZR4SL4pAsZTuv1210312022-09-01T04:03:24.203ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8A6MUtJgVjzK6PehkouDPchttps://video.igem.org/lazy-static/thumbnails/e2c9a10e-cff2-4525-887c-e6fb9b40bb30.jpgXHD-Wuhan-Pro-China: Zinc Sensor (2022) - Project Promotion [English]**Title:** Zinc Sensor **Description:** Our project aims to provide a new answer to the problem of zinc contamination with zinc sensors. The modified instrument can sense zinc ions in the solution and become a sensor similar to a galvanic cell. According to the concentration of zinc ions in the solution, the current and voltage in the circuit will change to measure the concentration of zinc ions in industrial wastewater. [Wiki](https://2022.igem.wiki/xhd-wuhan-pro-china)https://static.igem.org/peertube/streaming-playlists/hls/3d72d3f2-3fb1-4fda-9639-d5351aadd905/e7a581d7-178e-4ae8-a233-7bfdd27e4b9e-master.m3u8https://video.igem.org/videos/embed/8A6MUtJgVjzK6PehkouDPc1180272022-09-01T04:57:35.016ZYES2022 Project PromotionsNOhttps://video.igem.org/w/54m3eD3sGQAgRUSNx8wsVQhttps://video.igem.org/lazy-static/thumbnails/6e7118c1-7ccd-4a97-b36b-ce11e3f35749.jpgCUG-China: Biosensor for c-di-GMP (2022) - Project Promotion [English]**Title:** Biosensor for c-di-GMP **Description:** Bacteria frequently accumulate and grow in nature as biofilms. Biofilm formed by pathogens raise their antibiotic resistance and threaten our health. Since the second messenger c-di-GMP is a central regulator of biofilm formation, we plan to construct a broadly applicable c-di-GMP biosensor, transferring the c-di-GMP level into florescence signal. By monitoring c-di-GMP level in real time in different bacteria, we can perform high throughput screening potential biofilm dissociating drugs. [Wiki](https://2022.igem.wiki/cug-china)https://static.igem.org/peertube/streaming-playlists/hls/20dc2298-59e0-4d3c-83ce-14edd98b92da/d2ddcf76-7171-4063-9edb-d8a1ccff1db0-master.m3u8https://video.igem.org/videos/embed/54m3eD3sGQAgRUSNx8wsVQ11801872022-09-01T06:45:15.929ZYES2022 Project PromotionsNOhttps://video.igem.org/w/dcsS82fqhNDzK9vo7XDYzshttps://video.igem.org/lazy-static/thumbnails/3117525d-c118-4526-9c40-88fef044edc5.jpgNNU-China: Omega-3 Eggs——Start Your Brain Booster Journey (2022) - Project Promotion [English]**Title:** Omega-3 Eggs——Start Your Brain Booster Journey **Description:** We find that DHA/EPA eggs in the current market are relatively rare, the price is high, and DHA/EPA content is small, so we aim to use synthetic biology to build an engineering strain that can efficiently produce DHA/EPA, and make a bacterial powder feed that can efficiently produce DHA/EPA.Since wild-type Yeasts cannot produce EPA by themselves, our team engineered them to produce DHA and EPA through genetic engineering and metabolic engineering.DHA is called "brain gold", which helps the formation and development of brain cells, so more DHA is more suitable for teenagers.EPA is also known as "vascular scavenger", which can promote the health of the circulatory system and prevent cardiovascular and cerebrovascular diseases, so containing more EPA is more suitable for the elderly.We hope to improve and design the content and proportion of DHA/EPA in eggs to meet the needs of people of different ages and contribute to the promotion of human health and food safety all over the world. [Wiki](https://2022.igem.wiki/nnu-china)https://static.igem.org/peertube/streaming-playlists/hls/62c766a8-e0bd-4539-98cd-3c085b396b6c/95fd2627-da14-492b-ad8e-965904f5e150-master.m3u8https://video.igem.org/videos/embed/dcsS82fqhNDzK9vo7XDYzs1160682022-09-01T07:39:18.055ZYES2022 Project PromotionsNOhttps://video.igem.org/w/7Ck3opoANCFr64p9GQjLLFhttps://video.igem.org/lazy-static/thumbnails/0276e4eb-ad46-4940-be17-a3621042d149.jpgSuZhou_Union: Luzhou-flavor liquor cell factory (2022) - Project Promotion [English]**Title:** Luzhou-flavor liquor cell factory **Description:** Baijiu is one of the most famous distilled spirits in the world, among which Luzhou-flavor liquor is the most popular and best-selling liquor among various flavors, accounting for more than 70% of China’s liquor production. This project will build an engineering strain of Saccharomyces cerevisiae, increase the content of ethyl caproate, an aroma substance, improve the quality of Luzhou-flavor liquor, reduce food consumption, shorten fermentation time, and optimize the production process of Luzhou-flavor liquor. By constructing overexpression vector by overexpressing ACC1, FAS1, and FAS2 genes, using lithium acetate transformation technology to transfer it into yeast cells, and using gas chromatography to analyze ethyl acetate after fermentation. This project can improve ethanol and produce a large amount of ethyl hexanoate, which can improve the quality of liquor, the flavor and taste of liquor are improved. [Wiki](https://2022.igem.wiki/suzhou-union)https://static.igem.org/peertube/streaming-playlists/hls/35a9579a-7a9a-4502-ba6e-6f1dca311b9f/d032ccfe-1430-46be-bc0a-3f063c118957-master.m3u8https://video.igem.org/videos/embed/7Ck3opoANCFr64p9GQjLLF1200262022-09-01T07:41:12.543ZLuzhou-flavorLiquorOverexpressionYES2022 Project PromotionsNOhttps://video.igem.org/w/kjXMny7PFqsdTA559SSv6xhttps://video.igem.org/lazy-static/thumbnails/2b38ed33-0e63-439a-bd0f-3e0149826ffc.jpgNJXDF-CHN: Bring us closer by fragrance (2022) - Project Promotion [English]**Title:** Bring us closer by fragrance **Description:** 2-phenylethanol (2-PE) is a fatty alcohol with the aroma of rose, which is considered as an essential flavoring ingredient in the food and cosmetic industry because of its mild and elegant smell. In nature, 2-PE is mainly extracted from rose, jasmine, tomato, and buckwheat plants. However, the concentration of 2-PE in plants is deficient and susceptible to natural factors, such as weather and plant diseases, resulting in the cost of extracting 2-PE up to 3500-6000 USD/kg. Cheap 2-PE can be prepared by chemical synthesis, but the process of producing benzene ethanol by chemical synthesis is complicated. There are some problems, such as product safety and environmental pollution. Therefore, we hope to construct an engineered strain utilizing synthetic biology, so that it can synthesize natural, green, and sustainable 2-PE to meet the needs of the food and cosmetics industry. In addition, we will develop trend-leading and unique 2-PE products according to different people and scenarios. The project is committed to promoting the healthy development of food and cosmetics, promoting "carbon peak and carbon neutral", and realizing a green and sustainable economy and society. [Wiki](https://2022.igem.wiki/njxdf-chn)https://static.igem.org/peertube/streaming-playlists/hls/9c836642-0143-48f5-9ab8-69c3e1982745/42908a2f-fe16-4fe0-9481-fd72ed1ff82f-master.m3u8https://video.igem.org/videos/embed/kjXMny7PFqsdTA559SSv6x1150432022-09-01T07:45:14.680ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mhJkiv5xeVXMCoMxZ9D8wBhttps://video.igem.org/lazy-static/thumbnails/8b032f0a-9491-495d-aff4-bb9f61c71459.jpgGDSYZX: Application of photoinducible promoter in the biosynthesis of patchoulol... (2022) - Proj...**Title:** Application of photoinducible promoter in the biosynthesis of patchoulol in yeast **Description:** Patchoulol is one of the main active components of Pogostemon cablin, which is often used to defend against phytopathogenic microbes and combat human diseases. Patchoulol can be obtained by natural extraction, chemical synthesis, and synthetic biology engineering. However, the natural extraction is often low-efficiency, and the chemical synthesis is often costly and inefficient, and may not yield enantiomerically pure patchoulol. We engineered high level patchoulol production in yeast by overexpression of farnesyl diphosphate synthase(FPS, ERG20) and patchoulol synthase (PTS) either driven by strong promoter or light-induced promoter HIGH CHLOROPHYLL FLUORESCENCE173 (HCF173). The strategy increased the synthesis of patchoulol, which may also provide the foundations to generat higher levels of other terpenes for research, industrial production or therapeutic applications. [Wiki](https://2022.igem.wiki/gdsyzx)https://static.igem.org/peertube/streaming-playlists/hls/a44cc314-40d2-4a36-9054-298ee64a1813/1b96e724-fa6c-47a7-bada-f0b649436470-master.m3u8https://video.igem.org/videos/embed/mhJkiv5xeVXMCoMxZ9D8wB1170302022-09-01T07:51:26.784ZYES2022 Project PromotionsNOhttps://video.igem.org/w/m7cHQgdfFqwtFu2QsdN8m7https://video.igem.org/lazy-static/thumbnails/af26444b-2e7b-4dec-8860-aeb64dca6e62.jpgOUC-China: DISP——a production platform for automatic adjustment of engineering b... (2022) - Proj...**Warning:** The audio is too fast and difficult to understand **Title:** DISP——a production platform for automatic adjustment of engineering bacteria production growth and continuous screening **Description:** Nowadays, strain quality has become a major factor limiting the yield of fermentation industry. The engineering bacteria degenerate into wild-type due to mutation or some unknown endogenous regulation. They have more growth advantages than the production engineering bacteria and gradually occupy resources to become the dominant species. The production genes introduced into the engineering bacteria are copied and lost in the process of DNA replication during cell proliferation. At the same time, some products accumulate in the engineering bacteria, which has a negative feedback regulation effect on the production of enzymes. Moreover, the extraction process of the products by breaking the engineering bacteria is very complicated. We plan to design a software and hardware platform that automatically regulates the production and screening of strains to extract product simply and to ensure high-quality strains and improve the fermentation yield. #Fermentation #Manufacturing [Wiki](https://2022.igem.wiki/ouc-china)https://static.igem.org/peertube/streaming-playlists/hls/a2d47594-32e9-43b7-980b-740e4737473a/3dbea955-49b3-4fb5-8f4b-f2433742fd74-master.m3u8https://video.igem.org/videos/embed/m7cHQgdfFqwtFu2QsdN8m71200262022-09-01T08:52:16.287ZYES2022 Project PromotionsNOhttps://video.igem.org/w/hPxQEt8SmfA6D8Hd5kH2rwhttps://video.igem.org/lazy-static/thumbnails/282f1213-b69a-4ac7-8e3a-bf29e5150c56.jpgParis_Bettencourt: A synthetic biology toolkit to interface genetic circuits wit... (2022) - Proj...**Title:** A synthetic biology toolkit to interface genetic circuits with electronics **Description:** Language originating from the field of electronics is often employed in synthetic biology to describe genetic logic circuits, meanwhile, the real intersection of electronics with genetics remains largely unexplored. Our iGEM team is developing a toolkit of genetic parts with the concomitant open-source hardware to enable synthetic biologists to interface bacterial gene expression with electronics. Our toolkit incorporates a multitude of genetic parts from previous research in electro-microbiology that have been standardised to allow for a wide variety of applications. We are conversely researching new means of bioelectronic control using hyperpolarization of bacterial membranes for gene induction. Our toolkit will open doors for foundational research in gene expression and control and accelerate new ideas in biomanufacturing, biomonitoring, and biorobotics. [Wiki](https://2022.igem.wiki/paris-bettencourt)https://static.igem.org/peertube/streaming-playlists/hls/8835cc18-2d0f-4a81-ba61-80ac7c6ad884/fd5304c7-c24d-42b7-80c0-43bbf5900ba9-master.m3u8https://video.igem.org/videos/embed/hPxQEt8SmfA6D8Hd5kH2rw11501722022-09-01T08:54:20.837ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mNfPptq8rpdayoLegpAGJ1https://video.igem.org/lazy-static/thumbnails/18ded59a-0576-4d54-a6d5-93f8e6e17b49.jpgParis_Bettencourt: A synthetic biology toolkit to interface genetic circuits with... (2022) - Pro...**Title:** A synthetic biology toolkit to interface genetic circuits with electronics **Description:** Language originating from the field of electronics is often employed in synthetic biology to describe genetic logic circuits, meanwhile, the real intersection of electronics with genetics remains largely unexplored. Our iGEM team is developing a toolkit of genetic parts with the concomitant open-source hardware to enable synthetic biologists to interface bacterial gene expression with electronics. Our toolkit incorporates a multitude of genetic parts from previous research in electro-microbiology that have been standardised to allow for a wide variety of applications. We are conversely researching new means of bioelectronic control using hyperpolarization of bacterial membranes for gene induction. Our toolkit will open doors for foundational research in gene expression and control and accelerate new ideas in biomanufacturing, biomonitoring, and biorobotics. [Wiki](https://2022.igem.wiki/paris-bettencourt)https://static.igem.org/peertube/streaming-playlists/hls/a86c1e3d-0ef6-446f-93be-20a6b4f7ca84/a34df40e-3470-4d65-9b45-0a3d7b5c81be-master.m3u8https://video.igem.org/videos/embed/mNfPptq8rpdayoLegpAGJ110072022-09-01T08:54:26.073ZYES2022 Project PromotionsNOhttps://video.igem.org/w/iXgifQswwizCCvQhwR9hUrhttps://video.igem.org/lazy-static/thumbnails/67f7253e-93ac-4316-acea-3ebdfe63139a.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Arabic]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/9162b126-bf18-411b-b382-b60a9f726131/393a166c-b685-40ce-a5b8-7b5d98296f5b-master.m3u8https://video.igem.org/videos/embed/iXgifQswwizCCvQhwR9hUr110062022-09-01T09:00:08.329ZNeurodegenerationAlzheimer'sDiseaseSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/n6nUCARrcn6Seq9RcXGzychttps://video.igem.org/lazy-static/thumbnails/eb37c6b0-31a4-4ed2-8eb5-680f0dba8a5a.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Finnish]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/aad021b3-7223-472a-b4b8-e462f479fbbf/c401bd6b-4cb3-40f0-9d7e-c82884f6769f-master.m3u8https://video.igem.org/videos/embed/n6nUCARrcn6Seq9RcXGzyc118002022-09-01T09:01:29.292ZAlzheimer'sDiseaseNeurodegenerationSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/q6HV8w6AUXdSxmyVdRGEiHhttps://video.igem.org/lazy-static/thumbnails/485aea1b-589e-4661-9e14-de6e2761ede3.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [French]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/c327e0dc-327b-47e9-b48a-72ea5ad51e6b/05369113-f9fc-4315-a38f-ca69fab199e6-master.m3u8https://video.igem.org/videos/embed/q6HV8w6AUXdSxmyVdRGEiH111012022-09-01T09:05:28.744ZAlzheimer'sDiseaseNeurodegenerationSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/frCAjaJ7LGWx4SfFtDWCHBhttps://video.igem.org/lazy-static/thumbnails/3c90fcc7-8cb7-4cdb-9d96-c95c85990af3.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Indonesian]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/74f415fb-863e-4244-a048-d32ccaad24dd/938868d2-f230-48bc-bc64-7e0a065d9a6b-master.m3u8https://video.igem.org/videos/embed/frCAjaJ7LGWx4SfFtDWCHB1170252022-09-01T09:09:47.383ZAlzheimer'sDiseaseNeurodegenerationSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/kjWaEfz1oCBvx1szPQKj5hhttps://video.igem.org/lazy-static/thumbnails/021d3c1a-afda-42a3-b83a-e7f4dd749311.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Korean]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/9c82675a-1157-4091-b22e-0e540ac5ced8/c0879e0e-caf5-4486-8828-c3ce70f099a6-master.m3u8https://video.igem.org/videos/embed/kjWaEfz1oCBvx1szPQKj5h118012022-09-01T09:13:32.057ZAlzheimer'sDiseaseNeurodegenerationSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/oheVBg9uACCrMEpdpYokgWhttps://video.igem.org/lazy-static/thumbnails/ecedb8fc-b9bb-4605-ba3c-549a9b43812c.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Chinese]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/b46d882f-c8c7-4b76-a8ca-30f4b6dac218/106bfd34-179d-4a70-9471-e93f56a3b0cb-master.m3u8https://video.igem.org/videos/embed/oheVBg9uACCrMEpdpYokgW116032022-09-01T09:18:53.760ZAlzheimer'sDiseaseNeurodegenerationSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/xpmySW4hyZMD4tsJ5AU1A4https://video.igem.org/lazy-static/thumbnails/e3182392-aa4f-4fa3-a392-2b0852bcf972.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Portuguese]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/fe4e1477-9e26-4fcd-80c0-c7f2344776f7/c7aba760-1a69-4dd8-823d-20f31daaf3e8-master.m3u8https://video.igem.org/videos/embed/xpmySW4hyZMD4tsJ5AU1A4118012022-09-01T09:23:07.003ZAlzheimer'sDiseaseNeurodegenerationSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/kWKoZJANTJ354EA28DXFndhttps://video.igem.org/lazy-static/thumbnails/f4bc17eb-2eb1-4108-9366-831eafd3703c.jpgPUMC_CHINA: Pathway clustering for identification specific gene expression patte... (2022) - Proj...**Title:** Pathway clustering for identification specific gene expression patterns during EMT **Description:** We develop a new lineage inference method based on graph trajectory inference and clustering. Using this mehod, we identify specific HIF-1 oscillation patterns during epithelial-mesenchymal trasition of HCC. [Wiki](https://2022.igem.wiki/pumc-china)https://static.igem.org/peertube/streaming-playlists/hls/a1828aca-1ae5-4ae1-8d92-1aa9cfe43dd2/832e6f06-8abd-4475-b389-1765fd4328cf-master.m3u8https://video.igem.org/videos/embed/kWKoZJANTJ354EA28DXFnd1150292022-09-01T09:28:32.694ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mxFfTsNQmwvybGfAA8iQsQhttps://video.igem.org/lazy-static/thumbnails/01c2abd6-97c6-47f7-995c-e19d1470e222.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Russian]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/a66305d9-efe7-4dbe-bd17-101dc5d6afac/a9bd5bdb-af3b-42a4-902d-354ff69f413f-master.m3u8https://video.igem.org/videos/embed/mxFfTsNQmwvybGfAA8iQsQ119022022-09-01T09:30:09.737ZAlzheimer'sDiseaseNeurodegenerationSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/2iKWcFVsLE2xqXpPiX5Qkahttps://video.igem.org/lazy-static/thumbnails/f185c859-8e52-41d6-b1b1-d983a22e9cda.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Slovak]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/0a93dbbd-08a7-48c1-9807-ebc636e66407/26a02a83-e8dd-409d-b6da-03d4107d6a8f-master.m3u8https://video.igem.org/videos/embed/2iKWcFVsLE2xqXpPiX5Qka118022022-09-01T09:35:07.209ZAlzheimer'sDiseaseNeurodegenerationSyntheticBiologyBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/cPtE4NuUB1Rk1VUHtnoizuhttps://video.igem.org/lazy-static/thumbnails/9a5956b7-7d98-4bea-be7a-7bfafe975ef4.jpgNAU-CHINA: Liver Monitor：Rapid cell-free detection of liver disease based on bil... (2022) - Proj...**Title:** Liver Monitor：Rapid cell-free detection of liver disease based on bile acids level **Description:** At present, liver disease is prevalent in the world. About 2 million people die of it every year, and many of them suffer from further aggravation or even death due to untimely detect liver disease. Bile acid is a very important index to detect liver related diseases, liver cirrhosis, biliary atresia and other diseases caused by liver damage will make urine bile acid content doubled. The NAU-CHINA team focuses on a variety of phenomena. We try to use cell-free system to quantitatively detect urine bile acid content to achieve efficient and home-based detection of liver-related diseases. [Wiki](https://2022.igem.wiki/nau-china)https://static.igem.org/peertube/streaming-playlists/hls/5fb586b8-717d-4820-90c1-12c3c4190bda/f64e90e7-86cd-4b61-b6cf-e4a6723dce39-master.m3u8https://video.igem.org/videos/embed/cPtE4NuUB1Rk1VUHtnoizu1200282022-09-01T09:37:51.775ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xidtaHFbynFSv2Uj67RaYehttps://video.igem.org/lazy-static/thumbnails/5a20e1c4-6913-4c17-b064-fcb9c2c91193.jpgDUT_China: Strainer - A purification system enable high efficient CRISPR-based g... (2022) - Proj...**Title:** Strainer - A purification system enable high efficient CRISPR-based genome engineering during cell factory construction **Description:** CRISPR-based genome engineering strategies always have variable editing efficiencies targeting different sites. Here, DUT_China team developed a CRISPR-based purification system “strainer” to remove the cells without successful editing, thereby improving the overall editing efficiency during the high-throughput genome engineering process. We then successfully applied “strainer” for an isopropanol high-producing strain construction efficiently. This can be potentially used as an universal method for cell factory construction. #purification system #CRISPR #high-throughput #genome engineering [Wiki](https://2022.igem.wiki/dut-china)https://static.igem.org/peertube/streaming-playlists/hls/fd72a060-dcf7-422e-b88f-5c489930b4a9/3ff16e77-6c18-4b55-9e47-67f6f3bd71b3-master.m3u8https://video.igem.org/videos/embed/xidtaHFbynFSv2Uj67RaYe1200852022-09-01T09:42:14.323ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1XafnHiFMgqvMzHtqiGKnMhttps://video.igem.org/lazy-static/thumbnails/9ed72c3f-0783-4af3-9d37-9c05b2fb2164.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Spanish]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/07b39b45-8b9a-4018-960d-fb50d5a9038b/084add13-39ac-41a8-86c2-5533e853d743-master.m3u8https://video.igem.org/videos/embed/1XafnHiFMgqvMzHtqiGKnM117012022-09-01T09:43:26.800ZBrainSyntheticBiologyAlzheimer'sDiseaseNeurodegenerationYES2022 Project PromotionsNOhttps://video.igem.org/w/4wBSLt98VkP7Fak1mdgnNehttps://video.igem.org/lazy-static/thumbnails/89c08e51-6401-4954-8b99-c6dd52c92109.jpgDUT_China: Strainer - A purification system enable high efficient ... (2022) - Project Promotion ...**Title:** Strainer - A purification system enable high efficient CRISPR-based genome engineering during cell factory construction **Description:** CRISPR-based genome engineering strategies always have variable editing efficiencies targeting different sites. Here, DUT_China team developed a CRISPR-based purification system “strainer” to remove the cells without successful editing, thereby improving the overall editing efficiency during the high-throughput genome engineering process. We then successfully applied “strainer” for an isopropanol high-producing strain construction efficiently. This can be potentially used as an universal method for cell factory construction. #purification system #CRISPR #high-throughput #genome engineering [Wiki](https://2022.igem.wiki/dut-china)https://static.igem.org/peertube/streaming-playlists/hls/1c91d687-ed2b-4af6-b0db-a0e6cf363a85/4dbece33-3d92-43db-914d-64bf88cb3bca-master.m3u8https://video.igem.org/videos/embed/4wBSLt98VkP7Fak1mdgnNe1200252022-09-01T09:46:39.218ZYES2022 Project PromotionsNOhttps://video.igem.org/w/adMrQLLed6tXybreYN3BYzhttps://video.igem.org/lazy-static/thumbnails/799ee24e-c1bf-4405-9b9f-975bf54a4a98.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Turkish]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/4aab2e13-7692-499f-809e-32bbd38846ad/4395698a-6476-4b69-bce9-3650079401e7-master.m3u8https://video.igem.org/videos/embed/adMrQLLed6tXybreYN3BYz119002022-09-01T09:47:42.085ZSyntheticBiologyAlzheimer'sDiseaseNeurodegenerationBrainYES2022 Project PromotionsNOhttps://video.igem.org/w/tj3wAauigj2V6KgQtT2Mzhhttps://video.igem.org/lazy-static/thumbnails/3385c75e-a415-4837-9068-fddf6962421c.jpgKCL_UK: Symemco Therapeutics (2022) - Project Promotion [Polish]**Title:** Symemco Therapeutics **Description:** We are Symemco Therapeutics, KCL iGEM 2022. At Symemco Therapeutics, we aim to develop a disease-modifying therapeutic to stagnate the neuroinflammatory progression of mild to moderate stage AD. We plan to execute this by genetically engineering Escherichia coli to produce high yields of the polyphenol, pterostilbene. This video would not have been possible without the help of our PIs Dr Anatoliy Markiv and Dr Alison Snape. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/dd2bb072-4270-4a6b-820b-726aa5fbe596/50878101-9f3c-48e4-ab21-499a146b778a-master.m3u8https://video.igem.org/videos/embed/tj3wAauigj2V6KgQtT2Mzh118042022-09-01T10:04:28.648ZNeurodegenerationSyntheticBiologyBrainAlzheimer'sDiseaseYES2022 Project PromotionsNOhttps://video.igem.org/w/4pMRamETck7XpqStQV6nv3https://video.igem.org/lazy-static/thumbnails/f5ccb3b9-4e19-4720-a2b4-c19555590b75.jpgDeNovoCastrians: Optimization of microbial monoaromatic hydrocarbon degradation ... (2022) - Proj...**Title:** Optimization of microbial monoaromatic hydrocarbon degradation pathways **Description:** We are the DeNovocastrians, an undergraduate team based out of the University of Newcastle Australia. Monoaromatic hydrocarbons are used in a variety of industrial processes, including the production of fossil fuels. Exposure to such compounds poses a huge threat to human health and the environment. We aim to optimize naturally occurring monoaromatic hydrocarbon degradation pathways within bacteria for use in bioremediation efforts. [Wiki](https://2022.igem.wiki/denovocastrians)https://static.igem.org/peertube/streaming-playlists/hls/1b9dc6fc-0273-4fd3-bcc3-2fa2d9ba3f60/810df147-6f5e-4c5a-9cb7-59503ceeae0b-master.m3u8https://video.igem.org/videos/embed/4pMRamETck7XpqStQV6nv31200142022-09-01T10:40:34.066ZYES2022 Project PromotionsNOhttps://video.igem.org/w/6ZrQ2TCtPvcos94gDkoJYuhttps://video.igem.org/lazy-static/thumbnails/44dced18-5c06-43f8-b9ca-135709562945.jpgToulouse_INSA-UPS: DAISY: “Cracking allergies” special episode (2022) - Project Promotion [English]**Title:** DAISY: “Cracking allergies” special episode **Description:** The aim of the DAISY project is to detect the IgE responsible for immediate allergies. Two bacterial strains displaying DARPin or allergens on their surface will form a detectable agglutination. With high-throughput methods, the test can detect an unlimited number of allergens. Discover the highlights of the project in this special episode of the TV show “Cracking Allergies” hosted by our mascot Daisy! [Wiki](https://2022.igem.wiki/toulouse-insa-ups)https://static.igem.org/peertube/streaming-playlists/hls/3083015e-bb4a-40cd-98b6-71d047f2b5b4/368288f8-c6a9-4807-8a1e-56a6313ad62c-master.m3u8https://video.igem.org/videos/embed/6ZrQ2TCtPvcos94gDkoJYu11906612022-09-01T10:59:51.617ZYES2022 Project PromotionsNOhttps://video.igem.org/w/jKHWKW82h13X16vyKK5NwQhttps://video.igem.org/lazy-static/thumbnails/9ecfed2c-105d-4cf2-a0cc-5825a4c2a9d6.jpgXJTLU-CHINA: Application of new biofilm in industrial wastewater treatment (2022) - Project Promo...**Title:** Application of new biofilm in industrial wastewater treatment **Description:** We designed a water purification filter to take full advantage of engineered bacteria ability to adsorb heavy metals. It aims to complete the blocking, adsorption recovery and emission detection of a variety of heavy metal ions in the process of industrial wastewater treatment. We hope to use the research results of this project to contribute to the goal of zero emissions in the industry. Animator: Baiding Chen Voice Over Talent: Jiayi Li [Wiki](https://2022.igem.wiki/xjtlu-china)https://static.igem.org/peertube/streaming-playlists/hls/97df53b3-68d7-4571-8889-ff17fd06e924/f04c899a-0615-461f-ab9d-cfbd80fb5bc6-master.m3u8https://video.igem.org/videos/embed/jKHWKW82h13X16vyKK5NwQ1200962022-09-01T11:03:50.013ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ebTTUjwmHj3WVfFCKzGZSbhttps://video.igem.org/lazy-static/thumbnails/23a7de9d-7ece-4c04-a9c5-ad7b6d171aa3.jpgGreatBay_SCIE: FabRevivo (2022) - Project Promotion [English]**Title:** FabRevivo **Description:** The project of GB_SCIE engineers protein scaffold to combine multiple enzymes that can degrade fabrics more rapidly. This clear video shows how our project is born and our objectives. Meet our teem and our microbe-based sustainable degradation working device 'Dr. Celly' that aims to turn a huge waste producer on earth: the fashion industry into a closed loop and stop the harming effects. [Wiki](https://2022.igem.wiki/greatbay-scie)https://static.igem.org/peertube/streaming-playlists/hls/6acc38bc-739d-4898-bbb7-b9d077067212/1a0c5dec-8d25-40d0-98f5-3f73ede9f5fd-master.m3u8https://video.igem.org/videos/embed/ebTTUjwmHj3WVfFCKzGZSb12001522022-09-01T11:13:44.822ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nFQ6sDQM8Y1u91eTyW7cZHhttps://video.igem.org/lazy-static/thumbnails/05071857-b633-43ee-84d7-2374cfd959d1.jpgUNSW_Australia: Rusbusters- Inhibiting Cereal Rust with a Novel Peptide-Protein ... (2022) - Proj...**Title:** Rusbusters- Inhibiting Cereal Rust with a Novel Peptide-Protein Interaction **Description:** Meet the Rust Busters, UNSW's IGEM team working day and night to cure the world of cereal rust. This fungal infection affects the stem of wheat crops around the world severely inhibiting their yield. We seek to provide a highly specific and biologically friendly alternative to current pesticides via a novel peptide-based spray designed to inhibit the rust's growth. Together with our mascots, we seek to improve food security worldwide! [Wiki](https://2022.igem.wiki/unsw-australia)https://static.igem.org/peertube/streaming-playlists/hls/af9f8ed5-d4e4-485d-856d-5cfc85e6d72f/26db1f14-928c-4efb-bdf5-d031c294aa75-master.m3u8https://video.igem.org/videos/embed/nFQ6sDQM8Y1u91eTyW7cZH710512022-09-01T11:33:26.915ZYES2022 Project PromotionsNOhttps://video.igem.org/w/iQf8tLXqoCnEXwRj1kES1Shttps://video.igem.org/lazy-static/thumbnails/0af54470-5aa2-49a9-a810-d3be56f67c58.jpgFAFU-China: CRISPR/Cas9-based Plant Cell GABA Factory (2022) - Project Promotion [English]**Title:** CRISPR/Cas9-based Plant Cell GABA Factory **Description:** Do you suffer from lack of energy, poor memory, or lack of energy due to sleep problems? This is already a global problem. We are an iGEM team from Fujian, China, and we have come together to improve people’s sleep with our high-yield GABA longan. And we hope to establish a high-yield GABA longan cell line that can be subcultured for a long time and cooperate with related companies to extract GABA for use in the pharmaceutical industry. [Wiki](https://2022.igem.wiki/fafu-china)https://static.igem.org/peertube/streaming-playlists/hls/9067c3f4-ae75-4287-ba40-af6ec815125a/84620a55-0199-42d9-af6b-60cc20e67fd9-master.m3u8https://video.igem.org/videos/embed/iQf8tLXqoCnEXwRj1kES1S990802022-09-01T12:06:16.819ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2C1cYysF8wZSR44qhTcTpghttps://video.igem.org/lazy-static/thumbnails/4fb7f469-e246-4845-bbd0-227893e5b008.jpgBJWZ-China: Put "ears" on yeast, make them "hear" the voice of the world (2022) - Project Promoti...**Title:** Put "ears" on yeast, make them "hear" the voice of the world **Description:** The ion channel "NAN-IAV mode", which constitutes the auditory mechanotransduction in Drosophila, was expressed in Saccharomyces cerevisiae, and the downstream signal was amplified to the cytoskeleton by Tether (SunTag scFv), so as to realize the transition from mechanical stimulation to physiological activity and observe the response of yeast cells to acoustic waves. The project was carried out mainly in BJWZ's biology laboratory [Wiki](https://2022.igem.wiki/bjwz-china)https://static.igem.org/peertube/streaming-playlists/hls/0d200aa7-a695-4bae-b6dd-93738f43f9d9/ed34b82a-f4e9-4aed-8ce4-c5d110308061-master.m3u8https://video.igem.org/videos/embed/2C1cYysF8wZSR44qhTcTpg1120382022-09-01T12:09:36.201ZYES2022 Project PromotionsNOhttps://video.igem.org/w/x6yjKXbNNRvwPtEZsrUgfPhttps://video.igem.org/lazy-static/thumbnails/6a3d52e3-7d4a-41df-9e64-b54acbd48924.jpgHUS_United: RNA degradation regulator (2022) - Project Promotion [English]**Title:** RNA degradation regulator **Description:** The traditional way of increasing downstream product of gene expression is to adopt stronger promoter or RBS, and yet this can increase cellular metabolic pressure, which may result in lower growth rate and incompetency of the host cell. Our project introduces a new bio brick, degradation-tuning RNAs (dtRNAs), which can be used to regulate RNA degradation without dramatically increasing metabolic stress, helping synthetic biologists better modulate gene circuits. [Wiki](https://2022.igem.wiki/hus-united)https://static.igem.org/peertube/streaming-playlists/hls/fbd1eff4-218b-4366-a02f-661560b435a7/57fe7655-2206-4080-9f4f-5dc053ec1a33-master.m3u8https://video.igem.org/videos/embed/x6yjKXbNNRvwPtEZsrUgfP1190472022-09-01T12:13:22.143ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xpupC6ZtSTj4pk35yCtDE6https://video.igem.org/lazy-static/thumbnails/89225dbd-387e-41e7-b903-45f3241797f9.jpgNJU-China: Hairy-Scary Monster (2022) - Project Promotion [English]**Title:** Hairy-Scary Monster **Description:** On the Hairy-Scary planet, there lived Hairy-Scary Monsters. They are adorable creatures living in the β-catenin castle, tended by piezo1 the magical scissors, and fed on the 5αR fruit. However, testosterone came along, eating 5αR and becoming strong and evil. It destroyed piezo1 scissors, β-catenin castle, and even the precious hair of Hairy-Scary. Fortunately, Dr.siRNA came with his spaceship exosome, he used his RNA bubble gun and saved our Hairy-Scary. [Wiki](https://2022.igem.wiki/nju-china)https://static.igem.org/peertube/streaming-playlists/hls/fe52e96a-7144-4d93-8b1e-e744a4899e4d/9c1f766f-937b-44c2-8c12-962fca6c8cb0-master.m3u8https://video.igem.org/videos/embed/xpupC6ZtSTj4pk35yCtDE61210482022-09-01T12:17:18.610ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mEjYNf3yMwGjfe6qVEYoeFhttps://video.igem.org/lazy-static/thumbnails/5ce30151-850b-47ea-b91e-195713887ecd.jpgHK_CPU-WYY: Super Spider Slik (2022) - Project Promotion [English]**Title:** Super Spider Slik **Description:** Spider silks have a lot of characteristics which allow them to replace the existing materials we are using now. For example, spider silk has extremely high tensile strength and stretchability, also, it is biodegradable. Wanting to make good use of the potential of spider silks, our team, HK_CPU-WYY, plans to increase the production silk using synthectic biology and produce different types of spider silks with different mechanical properties by proportional expression. [Wiki](https://2022.igem.wiki/hk-cpu-wyy)https://static.igem.org/peertube/streaming-playlists/hls/a750bb9b-d303-4d25-96ec-fcb952e332f1/f04c9d09-636b-480b-9767-f581c1dc6502-master.m3u8https://video.igem.org/videos/embed/mEjYNf3yMwGjfe6qVEYoeF1200262022-09-01T12:44:02.122ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ceHLM1u5KLxvvGEQsxoHTfhttps://video.igem.org/lazy-static/thumbnails/9e83945d-df38-4e86-b61b-9303d8598606.jpgPeking: DEEPI（Directed Evolution of Efflux Pump inhibitors) (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it has no captions. **Title:** DEEPI（Directed Evolution of Efflux Pump inhibitors) **Description:** Antibiotic resistance has become an increasingly severe problem nowadays. One universal mechanism of antibiotic resistance is that under the pressure of natural selection, some bacteria can evolve an efflux pump that can expel antibiotics. Though directed evolution process and coculture system, our project aims to design an automatic, standardized process from the structure of efflux pump to an effective efflux pump inhibitor (EPI) that can be produced by microorganismsms, thus offer a solution to the coming antibiotic crisis. [Wiki](https://2022.igem.wiki/peking)https://static.igem.org/peertube/streaming-playlists/hls/5afeefeb-00ab-4319-8b53-cc3e5f288e00/44217667-a678-4c05-a938-3296c2074302-master.m3u8https://video.igem.org/videos/embed/ceHLM1u5KLxvvGEQsxoHTf1200462022-09-01T13:03:48.283ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nARfS83JQPTZfPKNUc3t9ahttps://video.igem.org/lazy-static/thumbnails/3a8bd887-ff97-449b-aa58-6d0748e29382.jpgNPU-CHINA: An artificial bacterial system to degrade PAHs (2022) - Project Promotion [English]**Title:** An artificial bacterial system to degrade PAHs **Description:** Polycyclic aromatic hydrocarbons (PAHs) are a large group of persistent environmental pollutants that have attracted much attention. They have strong teratogenic, carcinogenic and mutagenic effects, and phenanthrene is the smallest structural unit of carcinogenic PAHs. Currently, we are working on the construction of an artificial bacterial system that can degrade phenanthrene. By screening laccase and lignin peroxidase genes, we introduce them into Escherichia coli using DNA recombinant technology. [Wiki](https://2022.igem.wiki/npu-china)https://static.igem.org/peertube/streaming-playlists/hls/aeed8e28-24e5-48d8-93a1-3bc71e9c5725/926bfba0-9776-44fb-a7ae-34722452101f-master.m3u8https://video.igem.org/videos/embed/nARfS83JQPTZfPKNUc3t9a1110202022-09-01T13:08:27.659ZYES2022 Project PromotionsNOhttps://video.igem.org/w/eduDw14YirS1FEXZN9aT3Phttps://video.igem.org/lazy-static/thumbnails/e9157595-97eb-47f3-8f5e-8f2862fb6d94.jpgLZU-HS-China-A: Cell Surface Display Showing Chitosan System Produce Chitosan Ol... (2022) - Proj...**Title:** Cell Surface Display Showing Chitosan System Produce Chitosan Oligosaccharide **Description:** Our topic is using shrimp shells to generate chitosan oligosaccharide through several steps. The reason we chose this topic is that we saw many shrimps’ and crabs’ are wasted in our dining hall and in kitchens. Chitosan oligosaccharide can do something that is more valuable. After we read some articles, we decided to investigate the topic about converting into chitosan oligosaccharide since chitosan is insoluble in water but chitosan oligosaccharide is soluble in water and it maintain the value that chitosan brings. Shrimp shells will be converted into chitin and then converted into chitosan by deacetylation. Finally, it will be converted into chitosan oligosaccharide by using transgenesis, cell surface display and PCR and our experiment will mainly focus on the last step. We use cell surface display to make our experiment result better. The work which change chitosan to chitosan oligosaccharide works more efficient when it takes place on he cell surface. Chitosan oligosaccharide has a lot of values which is good for either human or animals .It can antioxidant, anti-tumor, anti-bacterial, anti-fungal, anti-obesity, lowering blood pressure, lowering blood lipid, and anti-inflammatory. For animals, it can help their bones growing. [Wiki](https://2022.igem.wiki/lzu-hs-china-a)https://static.igem.org/peertube/streaming-playlists/hls/6b0561cf-35e0-4051-a56a-7ec5809f9737/d0ccba87-057a-45ce-915b-e102f1f3f347-master.m3u8https://video.igem.org/videos/embed/eduDw14YirS1FEXZN9aT3P1200482022-09-01T13:28:21.825ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tufnfdmvFYmtH8uRdEvqG8https://video.igem.org/lazy-static/thumbnails/d166392a-99c7-433c-b6f8-3d4b94f6182f.jpgASIJ_Tokyo: LOTUS: Don't FRET (2022) - Project Promotion [English]**Title:** LOTUS: Don't FRET **Description:** Breast cancer is the most common cancer among women worldwide. Yet, screening rates remain low as traditional breast cancer screening methods can be painful or uncomfortable. To make breast cancer detection more affordable, easily accessible, and minimally invasive, ASIJ iGEM works to create a novel early detection mechanism by applying aptamer FRET technology. [Wiki](https://2022.igem.wiki/asij-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/de986c44-adac-44f5-97da-b03b35cd441f/5a30af39-e5f4-4f71-a19e-61f244ac70d5-master.m3u8https://video.igem.org/videos/embed/tufnfdmvFYmtH8uRdEvqG812001582022-09-01T13:32:24.331ZYES2022 Project PromotionsNOhttps://video.igem.org/w/7BVP92V9YwwiLVDFqmrFbDhttps://video.igem.org/lazy-static/thumbnails/8c54ad75-8fda-4d40-ae9f-93df83e009f6.jpgLZU-CHINA: Targeted Treatment of Colorectal Cancer with Gene-Editing Probiotics (2022) - Project ...**Title:** Targeted Treatment of Colorectal Cancer with Gene-Editing Probiotics **Description:** Colorectal cancer (CRC) is one of the most common malignancies, causing more than 9.6 million deaths in 2018, according to the WHO GLOBOCAN database. Current treatments for colorectal cancer include minimally invasive surgery, chemotherapy, radiation therapy, immunotherapy, etc. However, all of these have their challenges and limitations. The biggest challenge is the indiscriminate killing of normal cells. In addition, some chemotherapeutic agents can lead to the development of multidrug-resistant cells, which can have a range of adverse effects on the body. Therefore, it is essential to find safe and effective preventive or therapeutic strategies for CRC. The prevalence of probiotics in animals is important for maintaining homeostasis in the body. Microorganisms are also capable of being present in the tumor environment. In 2022, LZU-CHINA hopes to build specific engineered probiotics to treat colorectal cancer, enabling targeted tumor treatment with minimal harm to normal cells. The environment in which tumor cells live is usually characterized by high lactate concentration, low pH and low oxygen. LZU-CHINA team take advantage of this characteristic by introducing three promoters, lactate operon, pCadC and pTeT, into the probiotic, equipping the strain with an automated tumor targeting system. In order to make the system stable and enhance the specificity of the engineered bacterium to kill tumor cells, we also added other genetic components including Amplifying genetic logic gate, adhesion factor, killing factor and lysis factor. 2022 LZU-CHINA is dedicated to provide new approaches and ideas for cancer therapy by synthetic biology through gene circuit optimization and construction. [Wiki](https://2022.igem.wiki/lzu-china)https://static.igem.org/peertube/streaming-playlists/hls/359b06f5-9577-41e5-b487-cfc422c2b64d/10163a0f-b18d-4b97-89f7-8f086a6437c2-master.m3u8https://video.igem.org/videos/embed/7BVP92V9YwwiLVDFqmrFbD11202432022-09-01T14:05:06.013ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sWYkVEdxxeVQ8DMe2MA2vahttps://video.igem.org/lazy-static/thumbnails/00ec6198-de28-4966-bbd6-e2da11d08b78.jpgKU_Leuven: SenSkill : Dose-dependent colorectal cancer biosensor (2022) - Project Promotion [Engl...**Title:** SenSkill : Dose-dependent colorectal cancer biosensor **Description:** Colorectal cancer is the second deadliest cancer worldwide, however screening and therapy for the cancer still requires invasive methods and lacks specificity. Biosensors have been developed before but the tunability are mostly low, despite that being fundamental for a broad application. Safety of biosensors also remains as a hurdle to enter the clinics. Therefore, our goal is to develop a dose-dependent biosensor using NarX-NarL two component system and naringinen responsive promotor as a proof-of-concept. An agent-based modelling is done to predict the threshold needed to support and guide biosensor development. Temperature sensitive riboswitches in combination with type II toxin-antitoxin system are also used to establish biocontainment. [Wiki](https://2022.igem.wiki/ku-leuven)https://static.igem.org/peertube/streaming-playlists/hls/da3a7dde-9f44-4053-8650-acf3f1fd6b3f/211a3b6e-d789-4e9e-b0f1-ee59a2b5461d-master.m3u8https://video.igem.org/videos/embed/sWYkVEdxxeVQ8DMe2MA2va1200602022-09-01T14:36:50.000ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4q9QWuo3Zx7W9GPr3tNuXUhttps://video.igem.org/lazy-static/thumbnails/2aac9130-1e32-476e-837d-96c6a08246e6.jpgCUHKSZ: Point-of-Care detection of Nitrite based on nrfA triggered by NarP-depen... (2022) - Proj...**Title:** Point-of-Care detection of Nitrite based on nrfA triggered by NarP-dependent regulation in Escherichia coli **Description:** Recently, intensive use of nitrite is adversely affecting the environment and human health. Our bacteria will be genetically engineered to detect and deal with nitrite in water and food samples by overexpressing the nitrite reductase NrfA. With the E. coli being coated on a paper-based biosensor, electrons produced from nitrite reduction are directly transferred into an electrical signal readout. Harnessing the power of nature, our team intends to develop a fast and easy-operative method for portable nitrite determination. #E.coli #Biosensor #Nitrite [Wiki](https://2022.igem.wiki/cuhksz)https://static.igem.org/peertube/streaming-playlists/hls/1baab775-6c69-49de-82b2-21a94297b57a/718666f9-052e-448a-8a19-82f41c720102-master.m3u8https://video.igem.org/videos/embed/4q9QWuo3Zx7W9GPr3tNuXU1200502022-09-01T14:39:06.690ZYES2022 Project PromotionsNOhttps://video.igem.org/w/hvA2hvTK3Zaszbx9THU5cZhttps://video.igem.org/lazy-static/thumbnails/4e7a6161-9bd9-407f-bfc0-6e369017ad67.jpgSHSBNU_China: Biosynthesis of Delphinindin (2022) - Project Promotion [English]**Warning:** The video raises security concerns (scene doing experiment outside the lab) **Title:** Biosynthesis of Delphinindin **Description:** We convert coumaric acid with delphinidin by 7 enzymes produced by 2 plasmids. [Wiki](https://2022.igem.wiki/shsbnu-china)https://static.igem.org/peertube/streaming-playlists/hls/85b3c139-9af3-44ee-b469-914c36646957/0f5e05aa-f12c-4cbd-adb3-5c49de028bff-master.m3u8https://video.igem.org/videos/embed/hvA2hvTK3Zaszbx9THU5cZ1140172022-09-01T14:42:35.085ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3CHWwJa2WoPvdXdFy4sxjdhttps://video.igem.org/lazy-static/thumbnails/8bca7c55-b8e7-4c1c-ab98-14e06262b488.jpgDTU-Denmark: Mold degrading furfural is Fun4al (2022) - Project Promotion [English]**Title:** Mold degrading furfural is Fun4al **Description:** DTU BioBuilders are making a mold capable of detecting and degrading the toxic compound furfural often found in lignocellulosic waste! We are generating synthetic transcription factors for Aspergillus niger tuned to detect furfural. These will activate newly discovered furfural degrading enzymes, improving mold growth in lignocellulosic media. Our A. niger has the potential to unlock the use of lignocellulosic waste as a resource in the production of valuable compounds. [Wiki](https://2022.igem.wiki/dtu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/1552e64b-57f9-4e81-a427-2ed3c6ddab7c/248e2f08-79ed-47e7-8948-571d62a9edb0-master.m3u8https://video.igem.org/videos/embed/3CHWwJa2WoPvdXdFy4sxjd11602632022-09-01T15:05:34.615ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xkEbjNhfxi32jSPKpYSN5Vhttps://video.igem.org/lazy-static/thumbnails/a85fc3bf-dd09-4ec3-876a-1fe8a70085a5.jpgPT - Biologia sintética para não biólogos (iDL & UNESCO)PT - Biologia sintética para não biólogos (iDL & UNESCO)https://static.igem.org/peertube/streaming-playlists/hls/fdc9f547-4d09-415d-a311-c75a1c9c8a85/608d4ecf-746c-4d93-b3c2-a3d104b1139d-master.m3u8https://video.igem.org/videos/embed/xkEbjNhfxi32jSPKpYSN5V72630142022-09-01T15:52:52.200ZYESiGEM Design LeagueNOhttps://video.igem.org/w/cm7rxY9Sn3y766gQcK8bczhttps://video.igem.org/lazy-static/thumbnails/fc8f8a19-b74c-4a31-b2e6-2f249f1d0ff8.jpgWorldshaper-Shanghai: The Smurfs: Anti-aging anthocyanins produced by hairy root... (2022) - Proj...**Title:** The Smurfs: Anti-aging anthocyanins produced by hairy root cultures **Description:** Anthocyanins’ property to eliminate free radicals makes them anti-aging. However, planting food with anthocyanins requires intensive farming, and extracting anthocyanins from these plants is also inefficient. Worldshaper-Shanghai aims to develop a way to produce anthocyanins with high stability, high effectiveness, and less hazard. We plan to make these anthocyanins into easily accessible food pigments so that anyone can delay people’s aging processes! [Wiki](https://2022.igem.wiki/worldshaper-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/5be35eaa-0ace-4c49-a4ef-5c089910052f/c25e62a4-5b1a-4574-9d08-a405a50855ae-master.m3u8https://video.igem.org/videos/embed/cm7rxY9Sn3y766gQcK8bcz1200772022-09-01T15:56:48.101ZYES2022 Project PromotionsNOhttps://video.igem.org/w/76eGVhsDe4CDCS65k2Metqhttps://video.igem.org/lazy-static/thumbnails/c6970e44-ed77-484a-af70-78f5445db452.jpgWilliam_and_Mary: AI and Regression-Based Software to Optimize Chassis Selection... (2022) - Proj...**Title:** AI and Regression-Based Software to Optimize Chassis Selection and Synthetic Biology Fieldability **Description:** The first major barrier to making synthetic biology fieldable is choosing the right chassis. This is why we are developing software to provide synthetic biologists with the optimal bacterial chassis for their applications. Our software works for a range of environments and uses AI, neural networks, regression, genome-scale metabolic models, and metagenomics. Already have a chassis in mind? Our software can also identify which environments work best for your system. [Wiki](https://2022.igem.wiki/william-and-mary)https://static.igem.org/peertube/streaming-playlists/hls/3151ff43-53a7-49dd-8c86-a9890cd5bd82/6f5f9d24-b45c-4235-b281-b446f0a02972-master.m3u8https://video.igem.org/videos/embed/76eGVhsDe4CDCS65k2Metq11901092022-09-01T15:58:09.064ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2zUMxJokzpfyKzt3q8kCnEhttps://video.igem.org/lazy-static/thumbnails/89100870-d49b-415c-b8de-5662ca9dbdc5.jpgICJFLS: Paper Strip Biosensor Based on Cell-free System: A Portable Test for Maj... (2022) - Proj...**Title:** Paper Strip Biosensor Based on Cell-free System: A Portable Test for Major Depressive Disorder **Description:** Major depressive disorder (MDD) is mainly based on the patients' description of symptoms, assessment of mental status and evaluation of clinical behaviors, which increase the chance of misdiagnosis. We report the development of a novel, inexpensive, and portable filter-paper-based strip biosensor, which is used to diagnose MDD patients by detecting the abundance of specific microRNA in blood. [Wiki](https://2022.igem.wiki/icjfls)https://static.igem.org/peertube/streaming-playlists/hls/0cd53691-e2e8-4330-861a-510796ac3860/f016657d-5c61-40b3-9cf0-f428896fa10f-master.m3u8https://video.igem.org/videos/embed/2zUMxJokzpfyKzt3q8kCnE1200222022-09-01T15:58:41.267ZYES2022 Project PromotionsNOhttps://video.igem.org/w/i4xymi8TzJjQ5rrhr7Cv8Ghttps://video.igem.org/lazy-static/thumbnails/487773c0-597c-4a5d-bdac-0afb2ca3aac9.jpgWaseda_Tokyo: Cell-Free-based Detection Platform (2022) - Project Promotion [English]**Title:** Cell-Free-based Detection Platform **Description:** The possibilities of a technology combining biosensors and cell-free systems are endless. Cell-free systems have various advantages such as the versatility of substances used in the reaction, less concern for biocontamination, and the portability achieved by freeze-drying. We aim to solve various problems through the development of detection platforms based on a cell-free system. [Wiki](https://2022.igem.wiki/waseda-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/8a2a0964-6ee3-4419-a81f-64156ca2b2f2/cb107844-2756-4422-a5ff-0af2f310ebc0-master.m3u8https://video.igem.org/videos/embed/i4xymi8TzJjQ5rrhr7Cv8G12001162022-09-01T15:59:08.490ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1MVMhxV5kudi5JoNpBekoChttps://video.igem.org/lazy-static/thumbnails/411045b5-7612-4db3-9eaa-325047e4cd0b.jpgUMA_MALAGA: Metabolic switch cellulose-starch in E.coli (2022) - Project Promotion [English]**Title:** Metabolic switch cellulose-starch in E.coli **Description:** In Andalusia, more than 8 million tons of vegetable waste are generated each year. Faced with this problem, the StarchSTEM team of the university of Málaga intends to find a solution through synthetic biology. Introducing genes from cellulose-degrading and starch-making bacteria into Escherichia coli. We will achieve a bacterium capable of eating the problematic plant residues.converting its cellulose into glucose that will be stored as starch. [Wiki](https://2022.igem.wiki/uma-malaga)https://static.igem.org/peertube/streaming-playlists/hls/06699cfc-eeaf-4a7f-9ff8-859e01fbe9e4/a151ace3-6791-4496-b62c-30bb7c4ebe7c-master.m3u8https://video.igem.org/videos/embed/1MVMhxV5kudi5JoNpBekoC1150512022-09-01T16:01:24.015ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3xVp5SfGpB4zS971tHKjZnhttps://video.igem.org/lazy-static/thumbnails/b54dd4ee-ab8c-4fcd-b577-293453366a92.jpgUMA_MALAGA: Metabolic switch cellulose-starch in E.coli (2022) - Project Promotion [Spanish]**Title:** Metabolic switch cellulose-starch in E.coli **Description:** In Andalusia, more than 8 million tons of vegetable waste are generated each year. Faced with this problem, the StarchSTEM team of the university of Málaga intends to find a solution through synthetic biology. Introducing genes from cellulose-degrading and starch-making bacteria into Escherichia coli. We will achieve a bacterium capable of eating the problematic plant residues.converting its cellulose into glucose that will be stored as starch. [Wiki](https://2022.igem.wiki/uma-malaga)https://static.igem.org/peertube/streaming-playlists/hls/14a73deb-909f-4d67-b3e8-ad654db564af/b6f3d4c3-3355-4bec-9e0b-b3ee0804ee1b-master.m3u8https://video.igem.org/videos/embed/3xVp5SfGpB4zS971tHKjZn112032022-09-01T16:01:54.163ZYES2022 Project PromotionsNOhttps://video.igem.org/w/cDRDRu33otpqQCuWPQc9whhttps://video.igem.org/lazy-static/thumbnails/f7318c0e-d508-416c-b23c-a9af71fbfc87.jpgLZU-HS-China-E: S.A.T.C Saline-alkaline Tolerant E.coli (2022) - Project Promotion [English]**Title:** S.A.T.C Saline-alkaline Tolerant E.coli **Description:** Hypersaline wastewater is crushing the environment. Among various types of wastewater, water that contains Cadmium II is the most destructive one. We build special microbes that are highly saline-tolerated and capable to remove heavy-metal pollutants. We choose the biological method for filtration and use genetic methods to achieve it. Through professional experiments, we test the feasibility of our proposal. We interview specialists and exchange different ideas to improve our program’s connection with society. [Wiki](https://2022.igem.wiki/lzu-hs-china-e)https://static.igem.org/peertube/streaming-playlists/hls/5e5da4ef-5554-45f3-ba7c-3e94940e9e94/25d87f0e-535a-4755-9dea-82bc526b4bea-master.m3u8https://video.igem.org/videos/embed/cDRDRu33otpqQCuWPQc9wh960132022-09-01T16:08:54.706ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2xrvJYtWz2vRFvbVKMLhFrhttps://video.igem.org/lazy-static/thumbnails/b9122245-9414-4270-948c-020716b9061f.jpgINSA_Lyon1: FIAT LUX (2022) - Project Promotion [English]**Title:** FIAT LUX **Description:** Climate change is confronting agriculture with increasing challenges, including the emergence of plant pathogenic diseases such as Blackleg in Europe, which threaten crop yields and thus global food security. FIAT LUX opens the possibility to accelerate the development of new targeted treatments against new threats, and to improve their diagnosis thanks to iLux, a bioluminescent reporter gene and an algorithm of biosimulation. [Wiki](https://2022.igem.wiki/insa-lyon1)https://static.igem.org/peertube/streaming-playlists/hls/0c7ceb18-112e-4850-9efd-8b6b7d974aff/c092c02f-44d7-43bc-935d-7a09b39be1ad-master.m3u8https://video.igem.org/videos/embed/2xrvJYtWz2vRFvbVKMLhFr120015162022-09-01T16:18:13.202ZYES2022 Project PromotionsNOhttps://video.igem.org/w/cFihhxYX2BwTVqtBUfieDShttps://video.igem.org/lazy-static/thumbnails/759794ec-0859-4586-a79e-6174472d4eb4.jpgINSA_Lyon1: FIAT LUX (2022) - Project Promotion [Catalan]**Title:** FIAT LUX **Description:** Climate change is confronting agriculture with increasing challenges, including the emergence of plant pathogenic diseases such as Blackleg in Europe, which threaten crop yields and thus global food security. FIAT LUX opens the possibility to accelerate the development of new targeted treatments against new threats, and to improve their diagnosis thanks to iLux, a bioluminescent reporter gene and an algorithm of biosimulation. [Wiki](https://2022.igem.wiki/insa-lyon1)https://static.igem.org/peertube/streaming-playlists/hls/5e912e94-4bab-47e9-836e-5c900df927b0/20190df6-b575-45ea-b268-06ea8951d068-master.m3u8https://video.igem.org/videos/embed/cFihhxYX2BwTVqtBUfieDS120082022-09-01T16:20:37.551ZYES2022 Project PromotionsNOhttps://video.igem.org/w/cruhceEEkRmpSPJ4GK4npihttps://video.igem.org/lazy-static/thumbnails/3825d8cb-9b63-403c-b3c9-498bd0ceecd6.jpgINSA_Lyon1: FIAT LUX (2022) - Project Promotion [Chinese]**Title:** FIAT LUX **Description:** Climate change is confronting agriculture with increasing challenges, including the emergence of plant pathogenic diseases such as Blackleg in Europe, which threaten crop yields and thus global food security. FIAT LUX opens the possibility to accelerate the development of new targeted treatments against new threats, and to improve their diagnosis thanks to iLux, a bioluminescent reporter gene and an algorithm of biosimulation. [Wiki](https://2022.igem.wiki/insa-lyon1)https://static.igem.org/peertube/streaming-playlists/hls/5ca38c14-7847-47a7-a6d7-da65bda09523/c3e49c14-c17c-435d-937b-1b53cbd2ed4a-master.m3u8https://video.igem.org/videos/embed/cruhceEEkRmpSPJ4GK4npi1200172022-09-01T16:22:59.287ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8jpbyWXnK5cfYZScBhNUrthttps://video.igem.org/lazy-static/thumbnails/2259b364-1d40-45ee-aad0-cce433b68399.jpgINSA_Lyon1: FIAT LUX (2022) - Project Promotion [French]**Title:** FIAT LUX **Description:** Climate change is confronting agriculture with increasing challenges, including the emergence of plant pathogenic diseases such as Blackleg in Europe, which threaten crop yields and thus global food security. FIAT LUX opens the possibility to accelerate the development of new targeted treatments against new threats, and to improve their diagnosis thanks to iLux, a bioluminescent reporter gene and an algorithm of biosimulation. [Wiki](https://2022.igem.wiki/insa-lyon1)https://static.igem.org/peertube/streaming-playlists/hls/3b41a520-3d14-4297-a450-734937aad4e5/20dbafc3-3075-48e9-976b-cfc3a5286327-master.m3u8https://video.igem.org/videos/embed/8jpbyWXnK5cfYZScBhNUrt12001252022-09-01T16:24:06.303ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xd8TLqXVUTCeAcgn1myB17https://video.igem.org/lazy-static/thumbnails/669de396-f2d7-4391-bb87-f09f307f2976.jpgINSA_Lyon1: FIAT LUX (2022) - Project Promotion [German]**Title:** FIAT LUX **Description:** Climate change is confronting agriculture with increasing challenges, including the emergence of plant pathogenic diseases such as Blackleg in Europe, which threaten crop yields and thus global food security. FIAT LUX opens the possibility to accelerate the development of new targeted treatments against new threats, and to improve their diagnosis thanks to iLux, a bioluminescent reporter gene and an algorithm of biosimulation. [Wiki](https://2022.igem.wiki/insa-lyon1)https://static.igem.org/peertube/streaming-playlists/hls/fcbd166f-5b6f-4be4-939b-83561ac939f2/30661ab4-4277-45de-a5f3-9ed5be6f148d-master.m3u8https://video.igem.org/videos/embed/xd8TLqXVUTCeAcgn1myB17118092022-09-01T16:24:35.369ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sUqeMDnQAM3y2P5iwMcE7Qhttps://video.igem.org/lazy-static/thumbnails/f9f86f2a-558a-495b-9250-e297798d5a30.jpgINSA_Lyon1: FIAT LUX (2022) - Project Promotion [Italian]**Title:** FIAT LUX **Description:** Climate change is confronting agriculture with increasing challenges, including the emergence of plant pathogenic diseases such as Blackleg in Europe, which threaten crop yields and thus global food security. FIAT LUX opens the possibility to accelerate the development of new targeted treatments against new threats, and to improve their diagnosis thanks to iLux, a bioluminescent reporter gene and an algorithm of biosimulation. [Wiki](https://2022.igem.wiki/insa-lyon1)https://static.igem.org/peertube/streaming-playlists/hls/d9df37dd-120c-4e19-9360-af0ef830066c/e8c1ade8-7311-44f8-bab5-4fb2540c601e-master.m3u8https://video.igem.org/videos/embed/sUqeMDnQAM3y2P5iwMcE7Q1190162022-09-01T16:25:04.981ZYES2022 Project PromotionsNOhttps://video.igem.org/w/oyBMQKf9HTpPT4b9cBVe2Jhttps://video.igem.org/lazy-static/thumbnails/896dbbc9-995c-4e6d-80bd-b9bb67bd33af.jpgINSA_Lyon1: FIAT LUX (2022) - Project Promotion [Spanish]**Title:** FIAT LUX **Description:** Climate change is confronting agriculture with increasing challenges, including the emergence of plant pathogenic diseases such as Blackleg in Europe, which threaten crop yields and thus global food security. FIAT LUX opens the possibility to accelerate the development of new targeted treatments against new threats, and to improve their diagnosis thanks to iLux, a bioluminescent reporter gene and an algorithm of biosimulation. [Wiki](https://2022.igem.wiki/insa-lyon1)https://static.igem.org/peertube/streaming-playlists/hls/b6b6e862-2e6f-4089-bfc3-5238e24ffc90/f655a558-a744-492b-a17d-8a89695ef9db-master.m3u8https://video.igem.org/videos/embed/oyBMQKf9HTpPT4b9cBVe2J1200162022-09-01T16:26:33.623ZYES2022 Project PromotionsNOhttps://video.igem.org/w/h4ztnVibH87cXenmTpoN8mhttps://video.igem.org/lazy-static/thumbnails/621b8da0-07c7-4dce-8003-c26c84496c74.jpgLund: Beecilli - A Probiotic for Honeybees (2022) - Project Promotion [English]**Title:** Beecilli - A Probiotic for Honeybees **Description:** Glyphosate is the most used pesticide worldwide and has been shown to have sublethal effects on honeybees. For instance, it increases the risk of viral and parasitic infections. We developed Beecilli - a genetically modified gut organism which can degrade glyphosate into non-toxic compounds. Beecilli can be fed as a nutritional supplement to beehives that encounter glyphosate in their foraging area and offset the chemical harm. [Wiki](https://2022.igem.wiki/lund)https://static.igem.org/peertube/streaming-playlists/hls/821213e6-f831-4640-86f9-bc7a4fc78162/ebdec003-9a92-459f-81eb-a4e398a23536-master.m3u8https://video.igem.org/videos/embed/h4ztnVibH87cXenmTpoN8m1140602022-09-01T16:28:33.129ZYES2022 Project PromotionsNOhttps://video.igem.org/w/86qRHQ1JWWSXN8sE1zk3Ynhttps://video.igem.org/lazy-static/thumbnails/e3a4b286-d5b6-42f6-8163-c15ac2a7cbe1.jpgSZ-SHD: "Canfix" oral vaccine (2022) - Project Promotion [English]**Title:** "Canfix" oral vaccine **Description:** We are developing an orally administered live bacteria cancer vaccine which will utilize the secreted outer membrane vesicles produced by E. coli. These vesicles can successfully cross intestinal epithelial barrier, carrying tumor preventing antigens that can be recognized by immune cells in lamina propria. In order to avoid immune tolerance caused by long-term antigen stimulation, it is planned to utilize the SulAp UV inducible promoter to control the release of vesicles, and to develop a matching miniature swallowable programmed UV light source to trigger expression at the desired location. [Wiki](https://2022.igem.wiki/sz-shd)https://static.igem.org/peertube/streaming-playlists/hls/39720220-0e4b-4173-bc2d-27d363da0495/e53d03df-35d9-4d71-b330-68b3d7694a0e-master.m3u8https://video.igem.org/videos/embed/86qRHQ1JWWSXN8sE1zk3Yn11501012022-09-01T16:28:54.369ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xAwcc5VMtmzi5cVAszaT8Jhttps://video.igem.org/lazy-static/thumbnails/656f332c-5dde-410b-817c-572f2587cc9b.jpgBio-Brussels: The Harsh Truth of Hard Water (2022) - Project Promotion [English]**Title:** The Harsh Truth of Hard Water **Description:** Our team, Bio-Brussels, tackles the problem of hard water, which is a huge issue Brussels. Hard water is caused by an excess amount of calcium ions in the water, which easily precipitates into carbonate. This calcification decreases the lifespan of many household and industrial devices. We engineered bacteria to produce a protein which crystallizes calcium out of the water for use as an environmentally friendly water softener. [Wiki](https://2022.igem.wiki/bio-brussels)https://static.igem.org/peertube/streaming-playlists/hls/ffdd3196-be9c-4686-9d8d-0cfc13314ca4/cd1e3d24-74bc-486c-b0e1-55fbc7df1534-master.m3u8https://video.igem.org/videos/embed/xAwcc5VMtmzi5cVAszaT8J1200542022-09-01T16:57:44.663ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mEPvCFEHdAm1iE9CS5x147https://video.igem.org/lazy-static/thumbnails/93fc8339-25e4-4433-a18f-32bb4bb4f4c8.jpgWWU_Muenster: MonChassis (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it has no captions. **Title:** MonChassis **Description:** The class of monoterpenoids offers a vaste range of applications. Verbenone is one example and can be used to protect trees from the bark beetle. In order to make the production of monoterpenoids more efficient and environmentally friendly, we developed MonChassis. With this system and Verbenone as our proof of concept, we want to take a step towards bioeconomy. [Wiki](https://2022.igem.wiki/wwu-muenster)https://static.igem.org/peertube/streaming-playlists/hls/a76250eb-9dbb-4426-a7ef-898a41332e0c/1b149321-2d3c-43c4-9d7d-8f90cf15b5ea-master.m3u8https://video.igem.org/videos/embed/mEPvCFEHdAm1iE9CS5x14712002962022-09-01T17:03:01.692ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mwHCrhiEnHkfphH9aHaKdthttps://video.igem.org/lazy-static/thumbnails/34a51bc4-dbf4-487a-a96a-94e34e2bf028.jpgCU-Boulder: Magic Beans: Finding Environmental Solutions for Chemotherapeutic Cu... (2022) - Proj...**Title:** Magic Beans: Finding Environmental Solutions for Chemotherapeutic Cultivation in Soybeans **Description:** The chemotherapeutic Paclitaxel is listed by the World Health Organization as an essential medicine (WHO, 2021) and is one of the most intensively used anti-tumor drugs, yet is notoriously difficult to produce. By producing Paclitaxel in efficiently farmed soybeans, the CU-Boulder team hopes to provide a sustainable and relatively inexpensive method of producing this essential chemotherapeutic. To accomplish this, the CU-Boulder team is introducing enzymes of the Paclitaxel biosynthesis pathway from the Yew tree into soybeans. [Wiki](https://2022.igem.wiki/cu-boulder)https://static.igem.org/peertube/streaming-playlists/hls/a640bd97-78dc-4c71-8018-7ba46127c3f7/75925756-ebc6-4c28-9f0a-686931c80589-master.m3u8https://video.igem.org/videos/embed/mwHCrhiEnHkfphH9aHaKdt1180992022-09-01T17:03:29.699ZYES2022 Project PromotionsNOhttps://video.igem.org/w/wud1ocZbKpuvjA8T7cLcSMhttps://video.igem.org/lazy-static/thumbnails/3de1eb38-604b-4b20-8adb-039dc5868f5d.jpgSUSTech_EMB: Therapeutic exosomes treating non small cell lung cancer (2022) - Project Promotion ...**Title:** Therapeutic exosomes treating non small cell lung cancer **Description:** The non-small cell lung cancer (NSCLC), is a common lung disease with high prevalence. We are trying to develop therapeutic exosomes which can recognize tumor cells and release 12VC1 monobody into tumor cells to inhibit mutant KRAS. Our therapeutic exosomes can inhibit tumor growth and work with other drugs to treat NSCLC. [Wiki](https://2022.igem.wiki/sustech-emb)https://static.igem.org/peertube/streaming-playlists/hls/f6e2627b-155a-4cd8-bcd1-07a7f7c0ce9d/571cac22-f910-42ee-835c-7984420399cd-master.m3u8https://video.igem.org/videos/embed/wud1ocZbKpuvjA8T7cLcSM1090212022-09-01T17:11:04.816ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ewVTBPTphhpgWHTeQbX39ihttps://video.igem.org/lazy-static/thumbnails/f03c63fa-46aa-49cb-aeb6-4d2856a2df42.jpgRS_Joint_China: Devourer: An Environmental Friendly Way to Absorb Pb in Soil Whi... (2022) - Proj...**Title:** Devourer: An Environmental Friendly Way to Absorb Pb in Soil While Promote Plant Growth **Description:** With the development of industrialization, excessive use of land mines, water pollution, and unfriendly mining methods have caused heavy metal pollution in many areas. Lead pollution is one of the most significant heavy metal pollution. We are devourers, an iGEM team consists of high school students from all over the world. To solve the problem, we selected poplar as the experimental material. After extracting its DNA from the leaves, we used directional optimization gene function to improve the absorption capacity of PtoMYB46 gene lead ions. Then, we targeted PtoMYB46 to regulate PtoARF2 using EMSA and yeast single hybrid and double luciferase assays. Thus, the growth of poplar was positively regulated under Pb ion stress. In the future, we hope to use synthetic biology technology to create a perfect gene to absorb heavy metal ions to repair the soil and promote a green environment. [Wiki](https://2022.igem.wiki/rs-joint-china)https://static.igem.org/peertube/streaming-playlists/hls/6d985398-a201-4d2c-99ae-66690eb28d21/cbcf568c-2242-4b6e-89b3-ff8409d9befc-master.m3u8https://video.igem.org/videos/embed/ewVTBPTphhpgWHTeQbX39i1200682022-09-01T17:12:51.981ZYES2022 Project PromotionsNOhttps://video.igem.org/w/phkwra8TMVRdvHdGu2goemhttps://video.igem.org/lazy-static/thumbnails/4d7940df-9d4d-43e8-8562-62975f8e39b1.jpgAachen: MetaPhos - Modified Enzymes targeting Phosphate-recycling (2022) - Project Promotion [Eng...**Title:** MetaPhos - Modified Enzymes targeting Phosphate-recycling **Description:** Phosphate is an essential element for life. In the future we will not have the necessary amount of phosphate to feed 10 billion of humans because the mining rate of phosphate will decrease. The future main source of phosphate will be wastewater and trash. Till now we have no efficient solution to regain phosphate with the current wastewater treatment methods. If humanity can’t recycle phosphate, we will have many different challenges. One problem is that we pollute soil and water with the high amount of phosphate from the agriculture and industry waste. Furthermore we will lose phosphate as a fertilizer because of the current wastewater treatments methods. MetaPhos aims to revolutionize the phosphate cycle with our approach to combine a phosphate-binding-protein with a molecular switch. With our switch system we can control the binding and release of phosphate in a highly specific manner. Our goal is to recycle phosphate from wastewater and to generate polyphosphate for the industry. [Wiki](https://2022.igem.wiki/aachen)https://static.igem.org/peertube/streaming-playlists/hls/bc8a1f3d-be27-47c5-9c61-7b06fa58f206/3bbd7225-40b1-412b-905c-211bd16a7b51-master.m3u8https://video.igem.org/videos/embed/phkwra8TMVRdvHdGu2goem12004142022-09-01T17:28:38.543ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9ygFCr99kahR81jonJiHZ3https://video.igem.org/lazy-static/thumbnails/ae03d49c-4864-4af0-80d6-6d792f32ec5a.jpgUNILausanne: Quagg'out (2022) - Project Promotion [English]**Title:** Quagg'out **Description:** Quagg'out is a project dealing with spread management of Dreissena bugensis, an invasive species better known as Quagga mussels. In recent years, this species colonized our fresh waters causing ecological and economic disasters. To counter this, we have worked intensely for and built a project to tackle their undesirable effects. Stay tuned for this amazing underwater exploration, it's delightful! [Wiki](https://2022.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/454a9337-4c98-4f2c-a1cb-71a748ed7f98/9f44c025-dd0e-46e4-a55f-7c7115eeeec4-master.m3u8https://video.igem.org/videos/embed/9ygFCr99kahR81jonJiHZ31200722022-09-01T17:29:06.907ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kyFb2rUnmKPutBoqznegCdhttps://video.igem.org/lazy-static/thumbnails/e8ae45a2-aab7-4cc6-8fbd-6d5d62a089f9.jpgAachen: MetaPhos - Modified Enzymes targeting Phosphate-recycling (2022) - Project Promotion [Ger...**Title:** MetaPhos - Modified Enzymes targeting Phosphate-recycling **Description:** Phosphate is an essential element for life. In the future we will not have the necessary amount of phosphate to feed 10 billion of humans because the mining rate of phosphate will decrease. The future main source of phosphate will be wastewater and trash. Till now we have no efficient solution to regain phosphate with the current wastewater treatment methods. If humanity can’t recycle phosphate, we will have many different challenges. One problem is that we pollute soil and water with the high amount of phosphate from the agriculture and industry waste. Furthermore we will lose phosphate as a fertilizer because of the current wastewater treatments methods. MetaPhos aims to revolutionize the phosphate cycle with our approach to combine a phosphate-binding-protein with a molecular switch. With our switch system we can control the binding and release of phosphate in a highly specific manner. Our goal is to recycle phosphate from wastewater and to generate polyphosphate for the industry. [Wiki](https://2022.igem.wiki/aachen)https://static.igem.org/peertube/streaming-playlists/hls/9e6d9388-9039-43d3-8177-5dba5fc97348/56d54acf-7f87-49d0-bb6c-79dfcd599667-master.m3u8https://video.igem.org/videos/embed/kyFb2rUnmKPutBoqznegCd1200202022-09-01T17:31:38.764ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1EB6MaodvEpTxhKVDHsfPjhttps://video.igem.org/lazy-static/thumbnails/8354ca5d-0488-42e7-8a81-b62ed1d65f6b.jpgUNILausanne: Quagg'out (2022) - Project Promotion [French]**Title:** Quagg'out **Description:** Quagg'out is a project dealing with spread management of Dreissena bugensis, an invasive species better known as Quagga mussels. In recent years, this species colonized our fresh waters causing ecological and economic disasters. To counter this, we have worked intensely for and built a project to tackle their undesirable effects. Stay tuned for this amazing underwater exploration, it's delightful! [Wiki](https://2022.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/0563e4e8-c40a-4a5b-a538-3e50b6eacb30/0a131308-1cd6-4fc4-a5da-bbbf7503b453-master.m3u8https://video.igem.org/videos/embed/1EB6MaodvEpTxhKVDHsfPj120092022-09-01T17:32:08.300ZYES2022 Project PromotionsNOhttps://video.igem.org/w/q2pLbkrYKXcRoB9mNcboPyhttps://video.igem.org/lazy-static/thumbnails/c9ef57bb-4aa6-4a3e-b059-4006c0d6abb6.jpgDKU: GutGuard (2022) - Project Promotion [English]**Title:** GutGuard **Description:** Shigella is one of the most contagious pandemic diseases around the world that takes away millions of deaths and severe diarrhea every year. To counteract the wide-spectrum antibiotic resistance developed by Shigella, we create a novel treatment method using a surface display system in multiple probiotics. Antibodies that block the virulence factor on the Shigella cell membrane are displayed on the surface of the probiotics. The Shigella pathogens will be aggregated and become less virulent once they are “touched” by the probiotics. [Wiki](https://2022.igem.wiki/dku)https://static.igem.org/peertube/streaming-playlists/hls/c28db71c-27b0-4945-863c-3aed20c3bfde/e3b10288-6405-4e93-a58c-3a7422e76db6-master.m3u8https://video.igem.org/videos/embed/q2pLbkrYKXcRoB9mNcboPy1200932022-09-01T17:34:57.980ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ng6HqoHHchEwYxGEu9gQaPhttps://video.igem.org/lazy-static/thumbnails/d13500da-32ba-4c10-aca7-f186e4690e89.jpgCSMU_Taiwan: AID can aid (2022) - Project Promotion [English]**Title:** AID can aid **Description:** Hybridoma technology is one of the most commonly used technique in terms of the production of monoclonal antibodies. However, the affinity of the antibodies sometimes cannot satisfy the requirements of the experiments and the difficulty to largely manufacture hybridomas have been problems for many researchers. Therefore, CSMU_Taiwan have decided to work on the optimization of the hybridoma technology this year. [Wiki](https://2022.igem.wiki/csmu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/ac2b9702-41f8-4a2e-9a0c-3640f683afd1/05f66e8d-2182-44e2-a573-3b8770688710-master.m3u8https://video.igem.org/videos/embed/ng6HqoHHchEwYxGEu9gQaP1200942022-09-01T17:36:38.962ZYES2022 Project PromotionsNOhttps://video.igem.org/w/n11maV5gUFo9iiMtjkUffxhttps://video.igem.org/lazy-static/thumbnails/30f597e9-1b3c-4e51-bb91-a2ced212daff.jpgSJTU-software: DL-ecGEM Reconstruction of Actinomycetes: Improve the production ... (2022) - Proj...**Title:** DL-ecGEM Reconstruction of Actinomycetes: Improve the production of acarbose to treat type 2 diabetes **Description:** Actinomyces can produce α-glucosidase inhibitors and the anti-diabetic drug acarbose. To improve the production of acarbose, our project intends to develop a modelling software that incorporates deep learning to predict parameters by adding constraints to a genome-scale metabolic model (GEM) of actinomycetes. We can find the key enzymes and use hotspot identification tools to find protein engineering solutions for high acarbose production. [Wiki](https://2022.igem.wiki/sjtu-software)https://static.igem.org/peertube/streaming-playlists/hls/aa10204d-939f-41b9-9256-c6a0829c3513/e5facf1a-e6de-4e51-b339-c75b25cef7b4-master.m3u8https://video.igem.org/videos/embed/n11maV5gUFo9iiMtjkUffx1200282022-09-01T17:39:00.216ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9Ss916VraLWokgUr6StjBchttps://video.igem.org/lazy-static/thumbnails/f4788783-6c62-41c5-87b1-2ccfe43652a3.jpgHZAU-China: C.V.D: Curer of Vessel Disease (2022) - Project Promotion [English]**Title:** C.V.D: Curer of Vessel Disease **Description:** Due to the rapid development of society, both young and old people have a very serious bad diet. An unhealthy diet will affect the level of low-density lipoprotein (LDL) and triglyceride in the body, which will lead to the occurrence of a series of cardiovascular diseases(CVD) such as hypertension. The HZAU-China team hopes that by modifying Escherichia coli Nissle 1917, the intestinal content of TMA (trimethylamine), the precursor of TMAO (trimethylamine oxide) and an important factor inducing thrombosis, can be efficiently reduced from two aspects: inhibiting the production of TMA and degrading the TMA already existed, so as to reduce the possibility of thrombosis. At the same time our engineered bacteria will also release some relief substances that are beneficial to vascular protection. The project aims to develop an edible probiotic powder, which is expected to be used for the treatment of patients with cardiovascular disease caused by poor diet. It provides a new idea for cardiovascular disease treatment by intestinal drug therapy of low side effect and high universality. [Wiki](https://2022.igem.wiki/hzau-china)https://static.igem.org/peertube/streaming-playlists/hls/47d467e7-2863-4f28-8fe0-e6e24e61b339/bb1383d6-d644-49ff-98bf-8b9755467a89-master.m3u8https://video.igem.org/videos/embed/9Ss916VraLWokgUr6StjBc1100362022-09-01T17:51:41.151ZYES2022 Project PromotionsNOhttps://video.igem.org/w/p9GcjATGS1wxcvj9ceZqmshttps://video.igem.org/lazy-static/thumbnails/28b378c5-a15d-4904-9317-521e8bf1a49a.jpgThessaloniki: THERIAC: THEranostics using RNA interference for Application in Ca... (2022) - Proj...**Title:** THERIAC: THEranostics using RNA interference for Application in Cancer **Description:** Glioblastoma multiforme is the most common malignant tumour of the central nervous system in adults. It is considered an incurable cancer with a median survival of 15 months after diagnosis. We designed “Theriac”, a molecular theranostics tool; when it detects 2 certain biomarkers, a hybridization chain reaction (HCR) starts and therapeutic molecules are released. The aim is to achieve personalized therapy and increased targeting accuracy with fewer side effects. [Wiki](https://2022.igem.wiki/thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/bb78e916-b128-443c-8170-c8855926009a/2525a120-7381-4596-be94-08511eff8bee-master.m3u8https://video.igem.org/videos/embed/p9GcjATGS1wxcvj9ceZqms1200302022-09-01T18:06:19.133ZYES2022 Project PromotionsNOhttps://video.igem.org/w/jsXyPbbrqdSjTHKd47ZiARhttps://video.igem.org/lazy-static/thumbnails/397f3192-be27-4b80-a111-d3d09f61dfea.jpgMingdao: VACCINE:IMPOSSIBLE PHADRINK (2022) - Project Promotion [English]**Warning:** No modified organisms, or the product from the team's project was used in the filming of this video. **Title:** VACCINE:IMPOSSIBLE PHADRINK **Description:** A grandma owns a rural farm with a few dozen livestock. When the pandemic came, locals had limited access to medical resources.What's worse, all the livestock need vaccines ,too. This is where Mingdaos iGEM team comes in. After tons of trial and error, we were able to develop safe and drinkable vaccines using phages —Phadrink—for both people and livestock. Now the grandma and all locals don't have to worry about the pandemic. [Wiki](https://2022.igem.wiki/mingdao)https://static.igem.org/peertube/streaming-playlists/hls/958813d7-99f3-41fd-9357-8b38ab4f26f1/3d959d95-0958-4133-9e58-30885dcdbdb4-master.m3u8https://video.igem.org/videos/embed/jsXyPbbrqdSjTHKd47ZiAR12001772022-09-01T18:38:33.498ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9CUtJ6QUyE2V2F1PREne7ghttps://video.igem.org/lazy-static/thumbnails/625f00ae-27d8-4a7c-a8d1-af032498496d.jpgImperial_College_London: Sporadicate (2022) - Project Promotion [English]**Title:** Sporadicate **Description:** Over the next 35 years, the world’s growing population will demand more food than has ever been produced in human history. Plant diseases represent a massive obstacle to this challenge, causing $220B in damages annually. Fungal pathogens account for the greatest amount of damage, representing 75% of all plant-related infections. That is why we at Imperial College London's iGEM team have been developing Sporadicate, a non-toxic biofungicide platform effective against fungal plant diseases. [Wiki](https://2022.igem.wiki/imperial-college-london)https://static.igem.org/peertube/streaming-playlists/hls/45f039c9-dc9b-4f04-8fb8-32ebf178a847/7b39433b-ea60-4838-9353-39f1aa83501f-master.m3u8https://video.igem.org/videos/embed/9CUtJ6QUyE2V2F1PREne7g12004782022-09-01T18:45:30.779ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mmEnpjpt6s3BgWg5MXPAb8https://video.igem.org/lazy-static/thumbnails/d836b18b-73d2-4314-af97-e25c81702ac0.jpgAboa: CropFold - A bioassay for easy on-site plant pathogen detection (2022) - Project Promotion ...**Title:** CropFold - A bioassay for easy on-site plant pathogen detection **Description:** Plant diseases are a rising global and local threat to food security. CropFold provides a solution for plant pathogen detection, a cell-free detection system that is based on a toehold switch mechanism. The modular system can also be easily adapted to target the needs in other parts of the world. Crop yields are already decreasing; it’s important to minimize the number of crops affected by plant pathogens. [Wiki](https://2022.igem.wiki/aboa)https://static.igem.org/peertube/streaming-playlists/hls/a4d94b59-a1b7-4779-8e76-42d7dfbab87b/6d0fbdad-4b13-42ac-9e52-19c237e81596-master.m3u8https://video.igem.org/videos/embed/mmEnpjpt6s3BgWg5MXPAb81200942022-09-01T18:46:05.814ZYES2022 Project PromotionsNOhttps://video.igem.org/w/rSVSd8SsmdPmaX9UMSLkpbhttps://video.igem.org/lazy-static/thumbnails/4218f776-7bb5-46a0-a071-665fe961142f.jpgUNILausanne: Quagg'out (2022) - Project Promotion [German]**Title:** Quagg'out **Description:** Quagg'out is a project dealing with spread management of Dreissena bugensis, an invasive species better known as Quagga mussels. In recent years, this species colonized our fresh waters causing ecological and economic disasters. To counter this, we have worked intensely for and built a project to tackle their undesirable effects. Stay tuned for this amazing underwater exploration, it's delightful! [Wiki](https://2022.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/d190d9d4-bc1e-4d55-9cdb-240074791a0c/397a8bb3-a9da-423c-83bc-6681be433fc0-master.m3u8https://video.igem.org/videos/embed/rSVSd8SsmdPmaX9UMSLkpb120052022-09-01T18:48:25.637ZYES2022 Project PromotionsNOhttps://video.igem.org/w/eM32f5ZsNbtKEpZHKn5Rzjhttps://video.igem.org/lazy-static/thumbnails/6c2ef4aa-1875-4e7b-890d-53cf503c85f3.jpgRUBochum: BioSpatch, spidersilk and its various applications; i.e. healing burn ... (2022) - Proj...**Title:** BioSpatch, spidersilk and its various applications; i.e. healing burn wounds… **Description:** For this years project, we decided to take on the synthetic production of spider silk. Not only is the silk incredibly durable, but it is also very biocompatible, which makes it the perfect fibre to put on hard-to-heal wound such as burn injuries. In our labs we use E.coli to create the spider silk protein and then spin it into a tissue, thus creating our Spatch - our spider-silk-patch. [Wiki](https://2022.igem.wiki/rubochum)https://static.igem.org/peertube/streaming-playlists/hls/6f90849a-4e7d-4823-b68b-bf28e5fb7600/0a76941d-650c-4df1-a155-ad64e8e1a738-master.m3u8https://video.igem.org/videos/embed/eM32f5ZsNbtKEpZHKn5Rzj860392022-09-01T18:49:48.314ZYES2022 Project PromotionsNOhttps://video.igem.org/w/p8pTbRdEJy9Wrtbxy9Mp8Whttps://video.igem.org/lazy-static/thumbnails/fe5ad8f5-229c-4338-8d2d-50d859ac08a2.jpgUNILausanne: Quagg'out (2022) - Project Promotion [Spanish]**Title:** Quagg'out **Description:** Quagg'out is a project dealing with spread management of Dreissena bugensis, an invasive species better known as Quagga mussels. In recent years, this species colonized our fresh waters causing ecological and economic disasters. To counter this, we have worked intensely for and built a project to tackle their undesirable effects. Stay tuned for this amazing underwater exploration, it's delightful! [Wiki](https://2022.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/bb4b1d1b-c61d-4171-b13e-86b6a4e40d50/c4a23e11-84f3-40c1-adf0-fd6d3b14d688-master.m3u8https://video.igem.org/videos/embed/p8pTbRdEJy9Wrtbxy9Mp8W120022022-09-01T18:50:28.925ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9KND5cPyJPvEehHF5V2xjjhttps://video.igem.org/lazy-static/thumbnails/630718a2-657b-4c2a-8746-b8e3411d0201.jpgUChicago: Perfluorosense (2022) - Project Promotion [English]**Title:** Perfluorosense **Description:** UChicago iGEM 2022 is designing a bacterial biosensor for the detection of perfluorooctanoic acid (PFOA) in contaminated water supplies. Using a promoter in Rhodococcus jostii that responds to the presence of PFOA along with a T7 polymerase, bacteria will express green fluorescent protein if water is contaminated with PFOA. This is more accessible than current PFOA detection methods, which required extensive equipment and training. [Wiki](https://2022.igem.wiki/uchicago)https://static.igem.org/peertube/streaming-playlists/hls/46e6d574-534c-4268-8ca4-8c510a0f34ba/55bdb17a-abfd-46eb-9e91-ca0e3baae7cc-master.m3u8https://video.igem.org/videos/embed/9KND5cPyJPvEehHF5V2xjj1050112022-09-01T18:52:43.626ZYES2022 Project PromotionsNOhttps://video.igem.org/w/r9wGZgi2Jwx6mpGwikU3nKhttps://video.igem.org/lazy-static/thumbnails/e9129fd8-2675-4ca1-8c52-a96c3d3b5cf9.jpgUNILausanne: Quagg'out (2022) - Project Promotion [Italian]**Title:** Quagg'out **Description:** Quagg'out is a project dealing with spread management of Dreissena bugensis, an invasive species better known as Quagga mussels. In recent years, this species colonized our fresh waters causing ecological and economic disasters. To counter this, we have worked intensely for and built a project to tackle their undesirable effects. Stay tuned for this amazing underwater exploration, it's delightful! [Wiki](https://2022.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/cba5571f-5b49-448a-80e7-e2d2ba1161a5/4ee553f8-0283-4349-a261-a6b37c01fe72-master.m3u8https://video.igem.org/videos/embed/r9wGZgi2Jwx6mpGwikU3nK120022022-09-01T18:53:12.998ZYES2022 Project PromotionsNOhttps://video.igem.org/w/s4ibnkAmqM7BxZQQWLCs8chttps://video.igem.org/lazy-static/thumbnails/83b8ff34-baef-417a-ab2d-b4e51f7a560e.jpgHNU_China: P Pack—A Genetic Modified E.coli Strain That Recycles Phosphate in Eu... (2022) - Proj...**Title:** P Pack—A Genetic Modified E.coli Strain That Recycles Phosphate in Eutrophicated Water **Description:** Aiming at the emergency of eutrophication all around the world, HNU_China tries to design a genetic-modified E.coli strain. A genetic circuit that can recycle inorganic phosphate from eutrophic water to industrial use which is control by a thermal-regulated repressor is established, and a ppk mutation is performed to optimize the phosphorus storage of the bacteria. [Wiki](https://2022.igem.wiki/hnu-china)https://static.igem.org/peertube/streaming-playlists/hls/d3036c5a-6c2b-4b9a-87d0-2e5a318d8269/cabec784-053e-4a5d-b7a9-190ee18470ab-master.m3u8https://video.igem.org/videos/embed/s4ibnkAmqM7BxZQQWLCs8c12001022022-09-01T19:10:29.929ZYES2022 Project PromotionsNOhttps://video.igem.org/w/dCzhsvKUNTbvGuPqgi8fZ4https://video.igem.org/lazy-static/thumbnails/2d96424f-fa1d-4a77-9e5a-0f03529c41b7.jpgNCKU_Tainan: MerSe - Selenomelanin Biosynthesis (2022) - Project Promotion [English]**Title:** MerSe - Selenomelanin Biosynthesis **Description:** We are iGEM NCKU_Tainan team. This year, we engineered Se. coli that can produce selenomelanin, a kind of melanin that has better radiation absorbance than other analogs, to shield the bacteria from the space radiation. Our goal is to synthesize selenomelanin affordably and sustainably to help the advancement in aerospace application of synthetic biology. [Wiki](https://2022.igem.wiki/ncku-tainan)https://static.igem.org/peertube/streaming-playlists/hls/6648f393-e753-49ee-9d6d-4f97a5da61ed/b0e61efc-8c76-42f7-b76f-918c4c2df021-master.m3u8https://video.igem.org/videos/embed/dCzhsvKUNTbvGuPqgi8fZ412001242022-09-01T19:53:28.866ZYES2022 Project PromotionsNOhttps://video.igem.org/w/k9bgfr2LaKJsVp8ZyMmd6ihttps://video.igem.org/lazy-static/thumbnails/0f3ec4e5-1560-4d93-bcd9-21f8bad58b22.jpgCrete: ATROPA: Ameliorating agricultural insecurity for all farmers (2022) - Project Promotion [E...**Title:** ATROPA: Ameliorating agricultural insecurity for all farmers **Description:** It is a common secret that our world is on the brink of a food crisis. Now more than ever, every single crop produce matters. iGEM Crete may just have the solution. This year our team is aiming to ameliorate agricultural insecurity for all farmers, wherever in the world they may be. That’s why we’ve developed ATROPA. A diagnostic tool that allows to quickly detect the existence of the economically important plant pathogen, TSWV and save millions of crops around the globe [Wiki](https://2022.igem.wiki/crete)https://static.igem.org/peertube/streaming-playlists/hls/9b01e8d1-457a-4872-ba62-299079923893/e3e26598-dfde-4db9-8818-84f39d23acb2-master.m3u8https://video.igem.org/videos/embed/k9bgfr2LaKJsVp8ZyMmd6i1190152022-09-01T20:13:18.555ZYES2022 Project PromotionsNOhttps://video.igem.org/w/jz1NRPAHtU3Q3XzJ7836hZhttps://video.igem.org/lazy-static/thumbnails/b0224859-9ad7-4348-b10b-23e03e33da96.jpgNavarra_BG: BioGalaxy: A new method for monitoring air quality, plants as CO2 se... (2022) - Proj...**Title:** BioGalaxy: A new method for monitoring air quality, plants as CO2 sensors. **Description:** In this post-pandemic world, air quality is a term that has become familiar. Control of the air we breathe is now key to maintaining safe and clean spaces. The pandemic and all the social and environmental changes we are living in; droughts, wildfires, pollution, power shortage, lack of resources, and the need for more eco-friendly spaces have made us think. Our project's objective is to use plants as CO2 sensors. This requires the identification of promoter sequences highly and specifically induced by high CO2 concentrations. To develop our project first we study the different expression levels of several Arabidopsis thaliana CO2 inducible promoters under ambient and elevated CO2 conditions. As a proof of concept, we use the GFP reporter gene to measure the transcription level of each promoter using Nicotiana benthamiana transitory transformation. [Wiki](https://2022.igem.wiki/navarra-bg)https://static.igem.org/peertube/streaming-playlists/hls/966089c6-6f3d-4836-a81a-12f6ffd2730d/fdf085ea-2df5-4ec7-85d3-907c85fd4227-master.m3u8https://video.igem.org/videos/embed/jz1NRPAHtU3Q3XzJ7836hZ12001322022-09-01T20:15:08.933ZYES2022 Project PromotionsNOhttps://video.igem.org/w/htbNBNEPeyhsC9jXP6PmSohttps://video.igem.org/lazy-static/thumbnails/37ace0f0-d29a-4e2c-9c52-f9fcb6369275.jpgNavarra_BG: BioGalaxy: A new method for monitoring air quality, plants as CO2 se... (2022) - Proj...**Title:** BioGalaxy: A new method for monitoring air quality, plants as CO2 sensors. **Description:** In this post-pandemic world, air quality is a term that has become familiar. Control of the air we breathe is now key to maintaining safe and clean spaces. The pandemic and all the social and environmental changes we are living in; droughts, wildfires, pollution, power shortage, lack of resources, and the need for more eco-friendly spaces have made us think. Our project's objective is to use plants as CO2 sensors. This requires the identification of promoter sequences highly and specifically induced by high CO2 concentrations. To develop our project first we study the different expression levels of several Arabidopsis thaliana CO2 inducible promoters under ambient and elevated CO2 conditions. As a proof of concept, we use the GFP reporter gene to measure the transcription level of each promoter using Nicotiana benthamiana transitory transformation. [Wiki](https://2022.igem.wiki/navarra-bg)https://static.igem.org/peertube/streaming-playlists/hls/855df559-6718-4eaa-8dd2-b61959c8a602/e26d1686-e06f-4286-9829-03fd01a1d711-master.m3u8https://video.igem.org/videos/embed/htbNBNEPeyhsC9jXP6PmSo1200202022-09-01T20:22:08.635ZYES2022 Project PromotionsNOhttps://video.igem.org/w/rgBictJPAD9BSAyu3sNWvthttps://video.igem.org/lazy-static/thumbnails/fa81eefd-7610-41a5-b4eb-7c6cf04f395e.jpgVilnius-Lithuania: NanoFind (2022) - Project Promotion [English]**Title:** NanoFind **Description:** NanoFind is a project by Vilnius-Lithuania iGEM 2022 team focusing on nanoplastic detection system. In this project, synthetic biology tools enable the production of peptides that are able to recognize and bind particular types of plastic nanoparticles. This video captures our team in action. It gives viewer a sneak peak of us generating ideas, working in a lab, creating designs and models as well as sharing obtained results and strongly standing together as a team. [Wiki](https://2022.igem.wiki/vilnius-lithuania)https://static.igem.org/peertube/streaming-playlists/hls/cca26013-ae1f-4171-a456-96ee32476f55/b56dd0ca-e697-4883-b86b-5aae47f2893f-master.m3u8https://video.igem.org/videos/embed/rgBictJPAD9BSAyu3sNWvt1100582022-09-01T20:28:54.234ZYES2022 Project PromotionsNOhttps://video.igem.org/w/njs7AZUDbpekQmtF7qmynvhttps://video.igem.org/lazy-static/thumbnails/ee6e9d26-34eb-46c0-a3ce-3181901c6e1b.jpgNavarra_BG: BioGalaxy: A new method for monitoring air quality, plants as CO2 sen... (2022) - Pro...**Title:** BioGalaxy: A new method for monitoring air quality, plants as CO2 sensors. **Description:** In this post-pandemic world, air quality is a term that has become familiar. Control of the air we breathe is now key to maintaining safe and clean spaces. The pandemic and all the social and environmental changes we are living in; droughts, wildfires, pollution, power shortage, lack of resources, and the need for more eco-friendly spaces have made us think. Our project's objective is to use plants as CO2 sensors. This requires the identification of promoter sequences highly and specifically induced by high CO2 concentrations. To develop our project first we study the different expression levels of several Arabidopsis thaliana CO2 inducible promoters under ambient and elevated CO2 conditions. As a proof of concept, we use the GFP reporter gene to measure the transcription level of each promoter using Nicotiana benthamiana transitory transformation. [Wiki](https://2022.igem.wiki/navarra-bg)https://static.igem.org/peertube/streaming-playlists/hls/aca36498-9002-4482-ac59-89a400bd16ff/777a8f11-e4ce-4f1b-abf1-377fdb6e4751-master.m3u8https://video.igem.org/videos/embed/njs7AZUDbpekQmtF7qmynv120032022-09-01T20:34:53.736ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mbWxf1fjxNNCqmGPHcMfUfhttps://video.igem.org/lazy-static/thumbnails/1465678f-7a39-4606-b0f6-1c69025341bc.jpgNavarra_BG: BioGalaxy: A new method for monitoring air quality, plants as CO2 sen... (2022) - Pro...**Title:** BioGalaxy: A new method for monitoring air quality, plants as CO2 sensors. **Description:** In this post-pandemic world, air quality is a term that has become familiar. Control of the air we breathe is now key to maintaining safe and clean spaces. The pandemic and all the social and environmental changes we are living in; droughts, wildfires, pollution, power shortage, lack of resources, and the need for more eco-friendly spaces have made us think. Our project's objective is to use plants as CO2 sensors. This requires the identification of promoter sequences highly and specifically induced by high CO2 concentrations. To develop our project first we study the different expression levels of several Arabidopsis thaliana CO2 inducible promoters under ambient and elevated CO2 conditions. As a proof of concept, we use the GFP reporter gene to measure the transcription level of each promoter using Nicotiana benthamiana transitory transformation. [Wiki](https://2022.igem.wiki/navarra-bg)https://static.igem.org/peertube/streaming-playlists/hls/a37dd250-1482-416e-8aab-ac43cd1070e6/0c00034b-c333-4d74-af47-26bdc59d0290-master.m3u8https://video.igem.org/videos/embed/mbWxf1fjxNNCqmGPHcMfUf1200202022-09-01T20:39:22.671ZYES2022 Project PromotionsNOhttps://video.igem.org/w/koNErx8Cwpso2ZDGdvRqFFhttps://video.igem.org/lazy-static/thumbnails/c9ad8a62-6e95-4774-8b50-9242be845eb5.jpgBOKU-Vienna: Pichitecture: Creating an enviromentally friendly building material... (2022) - Proj...**Title:** Pichitecture: Creating an enviromentally friendly building material with the help of Synthetic Biology. **Description:** The 2019 IEA Global Status Report for Buildings and Construction revealed that 11% of global CO2 emissions are caused by the production of building materials. We at team BOKU-Vienna set out to create a brick material with the help of two microorganisms. On the one hand, the cyanobacterium synechocystis , due to their ability to biomineralize, which means taking up carbon dioxide from the air and converting it to a solid mineral, calcium carbonate. On the other hand, we use a yeast, pichia pastoris, to produce a variety of biopolymers: spider silk (two different types!), gelatine and PHB. These biopolymers give the calcium carbonate produced by our cyanobacteria the necessary structure, acting as crosslinkers. These elements, along with desert sand and lignin, which is a waste product of a paper and pulp industry, form our environmentally friendly, carbon dioxide reducing brick. Tackling challenges faced in the fight for sustainable development and environmentally friendly construction, project Pichitecture uses synthetic biology to make it’s contribution! [Wiki](https://2022.igem.wiki/boku-vienna)https://static.igem.org/peertube/streaming-playlists/hls/9d0cc122-4c93-426d-b8ed-0893fd870dd5/38f463ed-8a59-4900-9169-2d3fe214d739-master.m3u8https://video.igem.org/videos/embed/koNErx8Cwpso2ZDGdvRqFF12001132022-09-01T20:39:44.671ZYES2022 Project PromotionsNOhttps://video.igem.org/w/a1sEs24FRVBzgZSxn6JsHshttps://video.igem.org/lazy-static/thumbnails/ea704593-e7ce-49bb-a2da-ac6a98da6b71.jpgUppsala: PETerminator (2022) - Project Promotion [English]**Title:** PETerminator **Description:** Have you seen the tons of plastics on our land and in our oceans? Regardless of your answer, plastic pollution is widespread and getting worse by the second. To tackle plastic pollution, our project aims to make PET recycling more profitable by degrading PET into the high-value chemical PCA, with genetically engineered bacteria. We are iGEM Uppsala 2022 and we can not wait to finally say: Hasta la vista, plastic! [Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/48f2adf6-55ad-4941-9d78-65db4156eacc/7cfd2947-6c3b-4316-bf0e-fbb5bd66a869-master.m3u8https://video.igem.org/videos/embed/a1sEs24FRVBzgZSxn6JsHs11901372022-09-01T20:40:51.842ZYES2022 Project PromotionsNOhttps://video.igem.org/w/5DBNndQy1ZGZ4QVfbkajwchttps://video.igem.org/lazy-static/thumbnails/e2695efd-8cf7-4601-ae6a-e17ccad50867.jpgUppsala: PETerminator (2022) - Project Promotion [Swedish]**Title:** PETerminator **Description:** Have you seen the tons of plastics on our land and in our oceans? Regardless of your answer, plastic pollution is widespread and getting worse by the second. To tackle plastic pollution, our project aims to make PET recycling more profitable by degrading PET into the high-value chemical PCA, with genetically engineered bacteria. We are iGEM Uppsala 2022 and we can not wait to finally say: Hasta la vista, plastic! [Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/25a522e4-a562-481b-a063-036ba3f80537/b05b3141-2e3c-42b5-9831-b0466d7a0c99-master.m3u8https://video.igem.org/videos/embed/5DBNndQy1ZGZ4QVfbkajwc119092022-09-01T20:41:49.952ZYES2022 Project PromotionsNOhttps://video.igem.org/w/asem4dxCV5tXUXqFkt2qsThttps://video.igem.org/lazy-static/thumbnails/fa5f6b97-9fc2-4648-a1c2-581a3ff4615e.jpgUppsala: PETerminator (2022) - Project Promotion [Chinese]**Title:** PETerminator **Description:** Have you seen the tons of plastics on our land and in our oceans? Regardless of your answer, plastic pollution is widespread and getting worse by the second. To tackle plastic pollution, our project aims to make PET recycling more profitable by degrading PET into the high-value chemical PCA, with genetically engineered bacteria. We are iGEM Uppsala 2022 and we can not wait to finally say: Hasta la vista, plastic! [Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/4c8bcf82-e9a0-4abe-8910-dbfa25e4f9ef/4eaf3393-dfee-466e-8c69-a16b6d263ac4-master.m3u8https://video.igem.org/videos/embed/asem4dxCV5tXUXqFkt2qsT1190232022-09-01T20:42:52.373ZYES2022 Project PromotionsNOhttps://video.igem.org/w/j4oFhXvP6BP6cxFgeitoLjhttps://video.igem.org/lazy-static/thumbnails/36c46b96-3c84-4df1-bf88-d555e50d4652.jpgUppsala: PETerminator (2022) - Project Promotion [Spanish]**Title:** PETerminator **Description:** Have you seen the tons of plastics on our land and in our oceans? Regardless of your answer, plastic pollution is widespread and getting worse by the second. To tackle plastic pollution, our project aims to make PET recycling more profitable by degrading PET into the high-value chemical PCA, with genetically engineered bacteria. We are iGEM Uppsala 2022 and we can not wait to finally say: Hasta la vista, plastic! [Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/923db3e2-0860-4116-b6f9-1a1a9d4ed4ca/6b4571ad-a076-4db3-af5c-70ea86870ae7-master.m3u8https://video.igem.org/videos/embed/j4oFhXvP6BP6cxFgeitoLj117062022-09-01T20:43:49.723ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1bJfAqDnEDtjhAGbmAPHi3https://video.igem.org/lazy-static/thumbnails/ffbb4b4d-80b2-4234-917f-a4074bead24b.jpgUppsala: PETerminator (2022) - Project Promotion [German]**Title:** PETerminator **Description:** Have you seen the tons of plastics on our land and in our oceans? Regardless of your answer, plastic pollution is widespread and getting worse by the second. To tackle plastic pollution, our project aims to make PET recycling more profitable by degrading PET into the high-value chemical PCA, with genetically engineered bacteria. We are iGEM Uppsala 2022 and we can not wait to finally say: Hasta la vista, plastic! [Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/017f79e7-0705-4133-a6e1-c41a7793ed18/ca68c6e6-69a1-423b-bebf-cf74ea4340e6-master.m3u8https://video.igem.org/videos/embed/1bJfAqDnEDtjhAGbmAPHi3119062022-09-01T20:44:58.899ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ievQtnfzmstYMT3zMRXsqZhttps://video.igem.org/lazy-static/thumbnails/86f6a9d6-c1f9-4ccd-b19b-0fc8441a5d3a.jpgUppsala: PETerminator (2022) - Project Promotion [Czech]**Title:** PETerminator **Description:** Have you seen the tons of plastics on our land and in our oceans? Regardless of your answer, plastic pollution is widespread and getting worse by the second. To tackle plastic pollution, our project aims to make PET recycling more profitable by degrading PET into the high-value chemical PCA, with genetically engineered bacteria. We are iGEM Uppsala 2022 and we can not wait to finally say: Hasta la vista, plastic! [Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/8b8e69c3-f5a4-4d83-8619-e9352dabe759/99b9941f-0ecf-44cb-8411-9475aeb94feb-master.m3u8https://video.igem.org/videos/embed/ievQtnfzmstYMT3zMRXsqZ119022022-09-01T20:46:11.802ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kvPvd3QsoXBEf9MxSK5oVGhttps://video.igem.org/lazy-static/thumbnails/c9015e38-2e65-4407-bba3-b2ffd010060c.jpgASU: Chlamydomon[As] (2022) - Project Promotion [English]**Title:** Chlamydomon[As] **Description:** Water -- It's a basic need that people in Arizona, a state in the US with a desert climate and a long history of water scarcity and contamination, still struggle to access. While heavy metal contaminants, notably arsenic, pervade the groundwater supply in Arizona due to a history of persistent and unregulated mining activity. A study conducted by the US. Geological Survey in the main aquifers in the southwestern United States found that about 19% of the drinking water wells sampled exceeded the maximum contaminant level for arsenic of ten micrograms per liter. Established by the US Environmental Protection Agency. Arsenic contamination in water is an enormous health threat to rural Arizonans living in and around the Navajo Nation who rely on these water sources. We, the ASU iGEM team, decided to tackle this problem by creating Chlamydomon[As], an engineered microalgae capable of bioremediating arsenic from contaminated water. Chlamydomonas reinhardtii, is a microalgae which, when un-engineered, has the ability to uptake and detoxify heavy metals like arsenic from water. It does this by binding arsenic that enters the cell in its trivalent form arsenide to metal binding peptides called phytochelatins, which bind to the arsenic and sequester it in the vacuole of C. reinhardtii. We have taken advantage of this already existing biological pathway by introducing the genes encoding for the enzymes arsenal reductase and phytochelatin synthase into C. Rain Hardy. Arsenal reductase reduces incoming arsenic into the cell into arsenite, the kind that can bind to phytochelatins. Phytochelatin synthase is the rate-limiting enzyme involved in the production of phytochelatins, and by increasing its expression, we can increase phytochelatin synthesis in C. reinhardtii, enhancing its ability to bind and sequester arsenite in the vacuole, claimed it has the potential to revolutionize bioremediation technologies to help Arizona and regio...https://static.igem.org/peertube/streaming-playlists/hls/9e077a9f-3b5c-4568-9b34-74abe7506f12/eefbf265-4fef-4a46-a316-1468d5f919fe-master.m3u8https://video.igem.org/videos/embed/kvPvd3QsoXBEf9MxSK5oVG1200842022-09-01T20:50:50.467ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xokT3nCQfK5U6DbqDiLU7xhttps://video.igem.org/lazy-static/thumbnails/1641a4d0-bd4b-4455-a930-7e3e1e554156.jpgUppsala: PETerminator (2022) - Project Promotion [Icelandic]**Title:** PETerminator **Description:** Have you seen the tons of plastics on our land and in our oceans? Regardless of your answer, plastic pollution is widespread and getting worse by the second. To tackle plastic pollution, our project aims to make PET recycling more profitable by degrading PET into the high-value chemical PCA, with genetically engineered bacteria. We are iGEM Uppsala 2022 and we can not wait to finally say: Hasta la vista, plastic! [Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/fe29e9b3-7731-4a95-9dde-117433352fdb/8bfdd6d2-9523-4848-8c34-5470dd2ed6e3-master.m3u8https://video.igem.org/videos/embed/xokT3nCQfK5U6DbqDiLU7x119012022-09-01T20:51:13.909ZYES2022 Project PromotionsNOhttps://video.igem.org/w/uL4hsHuuamq8uzYqHN9RPphttps://video.igem.org/lazy-static/thumbnails/e2adaf76-e379-4fd5-b8f5-ae979ef66334.jpgUiOslo_Norway: CELLULALT (2022) - Project Promotion [English]**Title:** CELLULALT **Description:** CELLULALT, a bacterial cellulose with copolymers of chitin and cellulose, could be used to make all kinds of materials ranging from slow-release pills, to scaffolds for tissue regeneration or even be a source of dietary fiber as food. Our genetically modified bacteria could allow astronauts to use organic waste and grow CELLULALT to create all kinds of things that they would need, recycling organic waste would make the mission sustainable. #UiO #spaceIGEM #bacterialcellulose #cellulALT #2022 [Wiki](https://2022.igem.wiki/uioslo-norway)https://static.igem.org/peertube/streaming-playlists/hls/e8e6a1cf-b467-4ee6-bd68-ec9733b52661/3c1b35d4-458b-46b1-ad4b-3d237e2b1426-master.m3u8https://video.igem.org/videos/embed/uL4hsHuuamq8uzYqHN9RPp1200612022-09-01T20:54:50.597ZYES2022 Project PromotionsNOhttps://video.igem.org/w/x2PQj4AmEEbdTm5qCfDyyBhttps://video.igem.org/lazy-static/thumbnails/1522bb8a-71f6-4e37-bf3a-69ff2b79c411.jpgBostonU_HW: Aquamatic Technologies: The AM1 (2022) - Project Promotion [English]**Title:** Aquamatic Technologies: The AM1 **Description:** The AM1 is a novel, modular piece of technology with electronic integration throughout. It will allow users to customize an aquatic environment of their choice via a user-friendly touch screen interface, and will combine that liquid input with any biosensor by creating nano-sized reaction droplets in a microfluidic chip that output live data. This improves the process of toxin detection within liquids via automation, lowered cost, and customizability in a portable, easy to use system. [Wiki](https://2022.igem.wiki/bostonu-hw)https://static.igem.org/peertube/streaming-playlists/hls/fb4c8534-ba25-4efa-8c1f-ec85dbde570b/f73942bf-1a6c-476c-a64b-d1bf26ad43b4-master.m3u8https://video.igem.org/videos/embed/x2PQj4AmEEbdTm5qCfDyyB12001432022-09-01T21:18:28.844ZYES2022 Project PromotionsNOhttps://video.igem.org/w/bKBo8uUxgfRNuZPXNRLyhhhttps://video.igem.org/lazy-static/thumbnails/4376ac56-0f56-4bca-b37d-1fafca98b1c9.jpgMakerere_Uganda: Azadirachtin synthetically obtained using S. cerevisiae incorpo... (2022) - Proj...**Title:** Azadirachtin synthetically obtained using S. cerevisiae incorporated in a diffuser as a mosquito repellent **Description:** The endemic nature of malaria in the African continent has increased the need for better and more effective synthetic plant-based innovations that use the natural assets readily available in the region. For these reasons, we have spent the last year working the synthesis of azadirachtin through genetic engineering, a limonoid known for its mosquito repelling nature, to produce an eco-friendly and affordable solar-based diffuser for malaria prevention. [Wiki](https://2022.igem.wiki/makerere-uganda)https://static.igem.org/peertube/streaming-playlists/hls/57122c61-34af-4c8f-af6c-fef27e994020/06e42550-b7d2-49b7-beec-f10af502ca5b-master.m3u8https://video.igem.org/videos/embed/bKBo8uUxgfRNuZPXNRLyhh1150722022-09-01T21:19:57.889ZYES2022 Project PromotionsNOhttps://video.igem.org/w/fbaoY5Buw2MHP15q14q17Mhttps://video.igem.org/lazy-static/thumbnails/7f162de6-ff42-46e9-94b4-b18ef33cba3e.jpgIISER_TVM: DUONCO (2022) - Project Promotion [English]**Title:** DUONCO **Description:** This year, we are developing Duonco, a drug delivery system for use in breast cancer. Duonco is a dual nanovesicle system that uses two checkpoints to selectively deliver active drugs to cancer cells that overexpress two chosen cancer markers. Our engineered bacteria produce modified vesicles displaying affinity proteins against cancer markers and are combined with a prodrug-enzyme system. [Wiki](https://2022.igem.wiki/iiser-tvm)https://static.igem.org/peertube/streaming-playlists/hls/72cb2b5f-075d-4a22-b167-ca58d7cfbe79/aa4a815e-b252-4a4a-a96a-52c146b3e6f7-master.m3u8https://video.igem.org/videos/embed/fbaoY5Buw2MHP15q14q17M11808932022-09-01T21:41:59.347ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2igMPjArWpDahgWAb9N6Hchttps://video.igem.org/lazy-static/thumbnails/03c73dbd-2888-4a6a-94bb-eced12a1afe0.jpgMichiganState: Modifying Bacterial Viruses as an Alternative Biocontrol (2022) - Project Promotio...**Warning:** This video does not follow the guidelines, it contains wrong or mismatched captions. **Title:** Modifying Bacterial Viruses as an Alternative Biocontrol **Description:** With multidrug-resistant bacterial pathogens on the rise, our team is focused on alternative approaches to the use of antibiotics. We plan to improve phage therapy as a form of plant biocontrol by modifying phage for increased UV resistance for amplified effectiveness. We propose decorating the phage capsid with SpyTag proteins in which we can freely modify with SpyCatcher proteins to increase capsid rigidity thus increasing viability under UV. [Wiki](https://2022.igem.wiki/michiganstate)https://static.igem.org/peertube/streaming-playlists/hls/0a82837d-deb3-498c-b455-bbe41733d579/32ab0340-67e3-406c-a6ab-6aa511ae7cf9-master.m3u8https://video.igem.org/videos/embed/2igMPjArWpDahgWAb9N6Hc119092022-09-01T21:58:20.152ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2f3JX2greEw3cvg4xEB7HFhttps://video.igem.org/lazy-static/thumbnails/e9fc4ad6-ecad-4440-83d0-13ecaf9fdc8e.jpgWLC-Milwaukee: Soil Testing Kit (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it has a distracting watermark. **Title:** Soil Testing Kit **Description:** Nutrient-rich soil means successful farming for farmers. In order to determine soil health, we used E. coli engineered as a nutrient sensor to determine how much of each type of mineral is present in the soil. When coming into contact with different nutrients in soil samples the sensor will cause a color change. This allows farmers to analyze their soil in a faster and more efficient manner. [Wiki](https://2022.igem.wiki/wlc-milwaukee)https://static.igem.org/peertube/streaming-playlists/hls/0a0f3d86-3aa8-4585-9502-161cf693ddc1/7d7f8586-395e-4f44-9fec-fc2b00c11fa5-master.m3u8https://video.igem.org/videos/embed/2f3JX2greEw3cvg4xEB7HF970122022-09-01T22:12:19.106ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tnGUxzyX7aqc8tiTX11LuNhttps://video.igem.org/lazy-static/thumbnails/809548dc-e21f-4d90-9210-406022d6dad2.jpgUSAFA: The Future of Biocementation (2022) - Project Promotion [English]**Title:** The Future of Biocementation **Description:** Interplanetary travel may seem like an impossible feat. The 2022 USAFA iGEM team has created an improved biocementation process using biosilification of three different silicateins around Escherichia coli to reach mankind's ultimate goal. This new process can provide UV radiation protection and dust mitigation on extraterrestrial surfaces. Furthermore, our project is a potential stepping stone for spacecraft landings through sand stabilization. [Wiki](https://2022.igem.wiki/usafa)https://static.igem.org/peertube/streaming-playlists/hls/ddae9279-c0d0-419f-bd8e-5cac4455ec56/2bf4d4cb-8805-4ff1-a864-702fa6f8e7f1-master.m3u8https://video.igem.org/videos/embed/tnGUxzyX7aqc8tiTX11LuN1020332022-09-01T23:08:46.670ZYES2022 Project PromotionsNOhttps://video.igem.org/w/isbQkZ7vYuaBKKGvdcdhAVhttps://video.igem.org/lazy-static/thumbnails/87b94236-d989-4073-8476-2e88bda05141.jpgSorbonne_U_Paris: NAWI has a plan. (2022) - Project Promotion [English]**Title:** NAWI has a plan. **Description:** The world is already suffering from undernutrition, and with population rising and soil nutriments depleting, things aren't going to get better by themselves. That's why Sorbonne University's 2022 iGEM team is working on NAWI, the nutritive algae for world improvement. By increasing its iron content and making it appetising, the team hopes to create a novel food source, adaptable to diverse growing conditions, able to sustain our ever evolving society. [Wiki](https://2022.igem.wiki/sorbonne-u-paris)https://static.igem.org/peertube/streaming-playlists/hls/8d535f23-ab4e-45fe-9d45-9a7d69f0dd79/13db3624-0842-4531-a23b-12f590fc54da-master.m3u8https://video.igem.org/videos/embed/isbQkZ7vYuaBKKGvdcdhAV11201302022-09-01T23:09:33.981ZYES2022 Project PromotionsNOhttps://video.igem.org/w/6vBezBAkPfTx72FHpzGiUrhttps://video.igem.org/lazy-static/thumbnails/069aa908-ddcb-406d-b9fd-8733779b1e56.jpgULaval: Pherosynth: Beetles Under Surveillance (2022) - Project Promotion [English]**Title:** Pherosynth: Beetles Under Surveillance **Description:** Our project, PheroSynth, is a solution to help protect Canadian forests. The mountain pine beetle has experienced a significant increase in population since 1990. It is now establishing itself in the boreal forest and moving eastward across the country. Our goal is to produce the aggregation pheromone of this insect, using synthetic biology tools. This will allow us to better monitor and control its population. [Wiki](https://2022.igem.wiki/ulaval)https://static.igem.org/peertube/streaming-playlists/hls/2c9ff9f7-9627-4419-930e-f07cd54d8cb5/5e0e3947-0fff-45b7-92c9-0fa01b703fde-master.m3u8https://video.igem.org/videos/embed/6vBezBAkPfTx72FHpzGiUr1090212022-09-01T23:22:44.510ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ceH6EndUk19muDZTEziQTzhttps://video.igem.org/lazy-static/thumbnails/308979c3-67e1-411b-9147-42f0e7dd9531.jpgDuke: Novel Organoid-dependent Drug Efficacy Screening – Synthetic Biology for t... (2022) - Proj...**Title:** Novel Organoid-dependent Drug Efficacy Screening – Synthetic Biology for the Next Breakthrough in Brain Cancer Treatment **Description:** The Duke iGEM team is continuing to create a drug screening platform for glioma. This platform will utilize brain organoids and synthetic biology tools to visualize the efficacy of new and old drugs on brain tumors. This technology has the potential to facilitate breakthroughs in the field and offer hope to patients and their loved ones in the strenuous battle against this scary disease. [Wiki](https://2022.igem.wiki/duke)https://static.igem.org/peertube/streaming-playlists/hls/5afe8585-cf13-4e2b-ac3f-b86a15dc8627/d0f3af9d-a52e-4787-b40b-f61afbe49b69-master.m3u8https://video.igem.org/videos/embed/ceH6EndUk19muDZTEziQTz950172022-09-02T00:28:18.991ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8N4hA21p3eGJudiaRySr24https://video.igem.org/lazy-static/thumbnails/b3a7e974-4314-469d-a362-6d62cf01f9e8.jpgNTHU_Taiwan: Ss microneedle (2022) - Project Promotion [English]**Title:** Ss microneedle **Description:** Have you ever felt sweaty, itchy, or even red and scabbed? You may be infected with Staphylococcus aureus, which can lead to serious skin diseases such as Impetigo. The use of traditional methods of treatment often leads to bacterial resistance and relapse, which is quite troublesome for patients. We are NTHU_Taiwan and our project is SSS Microneedle: Combination of Microneedle with Antimicrobial Peptide Complex for preliminary detection and treatment of Staphylococcus aureus infection. [Wiki](https://2022.igem.wiki/nthu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/3f1e3587-26be-4c7c-9111-2ba8c4a790f1/6b3056d5-3673-4e21-841c-fab3240e370b-master.m3u8https://video.igem.org/videos/embed/8N4hA21p3eGJudiaRySr241130972022-09-02T00:55:04.199ZYES2022 Project PromotionsNOhttps://video.igem.org/w/5r7yh5AEcdTU9NF2YFawDGhttps://video.igem.org/lazy-static/thumbnails/c5ce5fb7-8a10-480d-b500-00b42e1bb7e5.jpgJiangnan-China: Construction of acid-tolerant Escherichia coli chassis cells bas... (2022) - Proj...**Warning:** This video does not follow the guidelines, captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Construction of acid-tolerant Escherichia coli chassis cells based on extremophiles Acidithiobacillus caldus **Description:** Acid stress conditions are frequently encountered during industrial fermentation as a consequence of the accumulation of acidic metabolites, which calls for more efficient and cost-effective acid-tolerant strains. Acidithiobacillus caldus shows the most outstanding ability to resist acid stress. Our project intends to stimulate the potential of CFAs gene from Acidithiobacillus caldus to boost cell growth and production even in heterologous strains under stress conditions. [Wiki](https://2022.igem.wiki/jiangnan-china)https://static.igem.org/peertube/streaming-playlists/hls/23e63081-b354-4132-b602-528ac486bc5a/816b76e2-799c-43db-b405-bfc98b1381bf-master.m3u8https://video.igem.org/videos/embed/5r7yh5AEcdTU9NF2YFawDG1200222022-09-02T01:04:22.592ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ayAHfmXvCG2Q9Bm3BKyuC1https://video.igem.org/lazy-static/thumbnails/74db07fb-8788-4e4b-b362-26c721b7ebed.jpgSYSU-Software: Touring in Defense Island (2022) - Project Promotion [English]**Title:** Touring in Defense Island **Description:** There're many treasures hidden in the defense systems of prokaryotes, for example the gene editing tool CRISPR-Cas system. Thus, our project focuses on the prediction and is in search of prokaryotes' defense genes. Based on a statistical concept—Defense Island, which means that defence genes of prokaryotes tend to cluster together in their genome, just like islands in the oceans, we can provide an online and offline platform to aid this searching process. [Wiki](https://2022.igem.wiki/sysu-software)https://static.igem.org/peertube/streaming-playlists/hls/4d6f70aa-1e46-42c1-9907-9f6838653d28/b11f7b32-ed7d-44a5-86af-10c6bdf2661c-master.m3u8https://video.igem.org/videos/embed/ayAHfmXvCG2Q9Bm3BKyuC11200562022-09-02T01:34:42.997ZPlatformProkaryotesDefenseSystemPredictionYES2022 Project PromotionsNOhttps://video.igem.org/w/qA1YHC3wnkyEFCrMdenUuphttps://video.igem.org/lazy-static/thumbnails/8bbf0656-c5c5-4e80-a915-ae56c138d91f.jpgAlma: Pine River Pollution and a Synthetic Biology Solution (2022) - Project Promotion [English]**Title:** Pine River Pollution and a Synthetic Biology Solution **Description:** Contaminated chemical waste invading waterways, polluting soil beds, devastating ecosystems from one prominent source – the Pine River – due to one destructive toxin – DDT. Alma College iGEM is providing a cost effective fluorescent biosensor that is able to detect levels of DDT pollution in affected soil samples in less than six hours. This progressive synthetic biological engineering approach delivers a higher quality of life to all impacted by chemical waste pollution. [Wiki](https://2022.igem.wiki/alma)https://static.igem.org/peertube/streaming-playlists/hls/c71b37fa-7ac3-47df-867d-b36b7b894617/0cbc5d6e-454e-45be-b1c4-418120193d2a-master.m3u8https://video.igem.org/videos/embed/qA1YHC3wnkyEFCrMdenUup830242022-09-02T01:53:07.950ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kuLXmLG7CeA3kAhFgYYM1ihttps://video.igem.org/lazy-static/thumbnails/02547831-a86f-49c4-a0a7-6daee1b02baf.jpgNYC_Empire_State: NeuroTrojan: A neuron rehabilitation therapy for post-stroke p... (2022) - Proj...**Title:** NeuroTrojan: A neuron rehabilitation therapy for post-stroke patients **Description:** Therapies for stroke prioritize the removal of blockages but don't focus on rehabilitating neurons. This is because the Blood Brain Barrier (BBB), a lining of endothelial cells on the artery, prevents potential drugs from accessing neurons. The NeuroTrojan project delivers beneficial proteins to neurons by fusing them with a "biological trojan horse." This fusion protein binds to the endothelial cell, and through receptor-mediated transcytosis delivers the therapeutic protein across the BBB. [Wiki](https://2022.igem.wiki/nyc-empire-state)https://static.igem.org/peertube/streaming-playlists/hls/9de22a0d-360e-462c-9228-3c41d2ee5bc5/895ba379-0c56-41ed-a75b-b7d612401a0e-master.m3u8https://video.igem.org/videos/embed/kuLXmLG7CeA3kAhFgYYM1i12002122022-09-02T02:11:38.813ZYES2022 Project PromotionsNOhttps://video.igem.org/w/q9YZeqr26PXdwtTTPyA1hehttps://video.igem.org/lazy-static/thumbnails/6f01704e-c5c0-4723-a660-eaa3740bcc7d.jpgFujian_United: Heavy metal detection (2022) - Project Promotion [English]**Title:** Heavy metal detection **Description:** With the development of industry and human activities, a large amount of metal ions are released. Many of these metal ions, such as cadmium, chromium, mercury, are enriched in the food chain and often cause many hazards to local ecosystems and human health. This project will establish a broader and cheaper rapid detection technology to reduce the intake of undesirable metal ions in the human body. In this project, by constructing recombinant plasmids ArsD, ArsR and ArsA, using Escherichia coli and Bacillus metal-responsive promoters, the sensitivity of biosensors is detected by the intensity of fluorescent signal, and the concentration of metal ions in the sample is displayed. This project can be used to detect heavy metals, provide warnings to people, and reduce their health damage to the human body. [Wiki](https://2022.igem.wiki/fujian-united)https://static.igem.org/peertube/streaming-playlists/hls/c39c65b7-7f16-4579-91f7-489c1e9aac9d/da689783-b3e0-41bf-9e22-dbabba042f4c-master.m3u8https://video.igem.org/videos/embed/q9YZeqr26PXdwtTTPyA1he11901532022-09-02T02:13:17.507ZHeavyMetalBiosensorYES2022 Project PromotionsNOhttps://video.igem.org/w/qz11Eqq6eEUFi9P7VpTeCkhttps://video.igem.org/lazy-static/thumbnails/5163a762-7173-477a-9de8-7f11dc318f81.jpgJilin_China: Heavy metal treatment (2022) - Project Promotion [English]**Title:** Heavy metal treatment **Description:** Whether in developing countries or developed countries, heavy metal environmental pollution is a serious problem. A variety of heavy metals in the sludge of the sewage treatment plant are seriously exceeding the standard. Therefore, we have developed an economical and efficient method for environmental quality monitoring and hazardous metals disposal. [Wiki](https://2022.igem.wiki/jilin-china)https://static.igem.org/peertube/streaming-playlists/hls/c6f6e119-09d8-401e-be9d-d64e1e4a6097/1caa35b0-2339-4963-851a-3c1316c6d583-master.m3u8https://video.igem.org/videos/embed/qz11Eqq6eEUFi9P7VpTeCk1180612022-09-02T02:22:35.583ZYES2022 Project PromotionsNOhttps://video.igem.org/w/bBcQN23b7KWcPJSf8iARtFhttps://video.igem.org/lazy-static/thumbnails/7a397eb9-8cc9-414b-89e9-1317a88fac4c.jpgSydney_Australia: Generating Novel Nanobodies as an Alternative to Monoclonal An... (2022) - Proj...**Title:** Generating Novel Nanobodies as an Alternative to Monoclonal Antibodies **Description:** We have used DNA shuffling to adapt nanobodies to new antigens, allowing for novel pathways in the development and updating of pre-existing nanobody therapeutic and diagnostic technologies. Tags: Nanobody DNA Shuffling Therapeutics [Wiki](https://2022.igem.wiki/sydney-australia)https://static.igem.org/peertube/streaming-playlists/hls/55e5b74b-10f3-4965-b365-2e42bc2a5969/5f2211aa-965f-492b-9606-d0ca3209a3cf-master.m3u8https://video.igem.org/videos/embed/bBcQN23b7KWcPJSf8iARtF12001482022-09-02T03:36:15.597ZYES2022 Project PromotionsNOhttps://video.igem.org/w/5wWWTi7hMzfoapEZmhJ8aphttps://video.igem.org/lazy-static/thumbnails/a4388934-af5f-4214-bd48-7099826492a6.jpgNU_Kazakhstan: Viraless: Rapid detection of emerging biological threats (2022) - Project Promotio...**Title:** Viraless: Rapid detection of emerging biological threats **Description:** Our team raises the question, how can we utilize those synthetic biology systems to protect ourselves from its dangerous manifestations? With that in mind, we are focused on applying synthetic biology in the field of biosecurity, by working on developing fiber-optic-based biosensors for the rapid detection of pathogens in the environment and bodily fluids by virus-specific antibodies bound to the device. #biosecurity #biodefense #opticfiber #virus #diagnostics [Wiki](https://2022.igem.wiki/nu-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/24b6bac6-658f-46a5-8464-2713c369766d/d45d0d93-5c1b-415f-a8f1-9a1cc9ff8501-master.m3u8https://video.igem.org/videos/embed/5wWWTi7hMzfoapEZmhJ8ap11701142022-09-02T03:42:47.609ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4E6k1tcnTKVE5wh9ihCveBhttps://video.igem.org/lazy-static/thumbnails/ebda64ef-9b84-47d2-b15f-67ffce5c6a92.jpgFSU: Quest For Biodegradable Algaecides (2022) - Project Promotion [English]**Title:** Quest For Biodegradable Algaecides **Description:** This year, our team investigated the toxicity of a fungal metabolite called cercosporin for potential algaecide use. We also explored the use of plasmids to express the cercosporin biosynthetic pathway in yeast, while attempting to fine-tune the pathway to increase yield for a lower cost. Stock Footage Credits: Free Stock Footage 4K (YouTube) Shani Services (YouTube) SeaLife TV (YouTube) ParksVicEducation (YouTube) Florida Department of Environmental Protections NoCopyrightFootages (YouTube) Fjgorora (WikiMedia) USGS Gary Crowder (YouTube) Norman Hunt (Youtube) Music Credits: Documentary Wildlife by Infraction [No Copyright Music] / Nature Awakening Cinematic Tense Trailer by Cold Cinema [No Copyright Music] / Giant Vlog Chill Hip-Hop by Infraction [No Copyright Music] / Korea [Wiki](https://2022.igem.wiki/fsu)https://static.igem.org/peertube/streaming-playlists/hls/1d9cf66a-d325-4639-8365-bae6a4f89e69/b1a9c9a2-1c83-4e37-ada7-607010ecd6fd-master.m3u8https://video.igem.org/videos/embed/4E6k1tcnTKVE5wh9ihCveB1190522022-09-02T04:04:33.170ZYES2022 Project PromotionsNOhttps://video.igem.org/w/w8y3Pt4oHc7pfgJ35oNgaAhttps://video.igem.org/lazy-static/thumbnails/52a8d3ae-0e78-4fc9-ae04-a0445890e14c.jpgNYCU-Taipei: E. COLOR (2022) - Project Promotion [English]**Title:** E. COLOR **Description:** Determining the time point of specific phases within the E. coli growth curve is vital for gene cloning and protein expression experiments. Our project works on the development of fluorescent growth status indicators assisted by real-time detection and an interactive mobile app. This foundational advance could increase the convenience and efficiency of microbial use in research, industrial and clinical settings, with hope of bringing impact to the whole scientific community. [Wiki](https://2022.igem.wiki/nycu-taipei)https://static.igem.org/peertube/streaming-playlists/hls/f4001de9-0451-4525-80dc-0caa2830ccd8/3080dc18-4f59-4fbf-9aec-32a9e4e20f2f-master.m3u8https://video.igem.org/videos/embed/w8y3Pt4oHc7pfgJ35oNgaA1200722022-09-02T04:25:59.292ZYES2022 Project PromotionsNOhttps://video.igem.org/w/85CYE9RHcW8GsseJNPVEhihttps://video.igem.org/lazy-static/thumbnails/67718b82-c520-4878-830a-082dbd09f54b.jpgZJU-China: Story Light (2022) - Project Promotion [English]**Title:** Story Light **Description:** In this video, we explain the concept, structure and function of our project, “Story Light” and we try to bridge the gap of synthetic biology, history and art， diversifying the meaning of synthetic biology. We hope “Story Light” can truly propel the preservation of stone cultural relics. [Wiki](https://2022.igem.wiki/zju-china)https://static.igem.org/peertube/streaming-playlists/hls/3955bbc6-9350-4f3a-97d5-0ce43e248f01/1911efc5-abdb-4718-ab6b-c6894ec3e64d-master.m3u8https://video.igem.org/videos/embed/85CYE9RHcW8GsseJNPVEhi12003622022-09-02T04:26:28.792ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2RLEV87PGmJWQwXXuD6TZ1https://video.igem.org/lazy-static/thumbnails/a3fc70b7-92f6-457a-90f8-9d58246982c1.jpgCCU_Taiwan: The EPA production from E. coli. to prevent cardiovascular diseases (2022) - Project ...**Title:** The EPA production from E. coli. to prevent cardiovascular diseases **Description:** Chub and Hill are having a health check, Chub is told to have a high risk of cardiovascular disease. The doctor suggests he should ingest EPA to prevent it. However, they see an article saying current EPA products are contaminated. Suddenly, an E. coli, PACO, shows up and tells them that CCU_Taiwan team wants to produce EPA from E. coli by cloning pfa genes, Acc genes, and adding cerulenin, which can solve the problem, and eventually prevent CVD by intake of uncontaminated EPA. [Wiki](https://2022.igem.wiki/ccu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/0f0c1ce3-b6fe-4ec3-b95b-b10aae022dee/6db37365-4d0a-4731-9dde-a1c06694e826-master.m3u8https://video.igem.org/videos/embed/2RLEV87PGmJWQwXXuD6TZ11150362022-09-02T04:30:57.738ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nvYeMdvLjKMDMrBKXGBuHvhttps://video.igem.org/lazy-static/thumbnails/120b36df-ea9a-45c7-8f70-457c2926140d.jpgHKUST: Safe Fish on Your Dish (2022) - Project Promotion [English]**Title:** Safe Fish on Your Dish **Description:** The HKUST iGEM team is here to introduce Fisherly, a fish spoilage testing kit designed to be affordable and user-friendly. By converting bioamines in fish tissues to hydrogen peroxide and detecting its concentration, the testing kit produces colorimetric outputs to indicate whether the fish is safe to consume or not. It will greatly reduce health risks imposed on the consumers as well as fish quality variability in the supply chain. [Wiki](https://2022.igem.wiki/hkust)https://static.igem.org/peertube/streaming-playlists/hls/ae3f238a-500a-4d61-9899-feaa6d034fef/2ca151fd-014b-4abc-8d9d-a5cbfd443b1c-master.m3u8https://video.igem.org/videos/embed/nvYeMdvLjKMDMrBKXGBuHv12005882022-09-02T04:37:19.888ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2uLUhLzMUBpbj75afteSWohttps://video.igem.org/lazy-static/thumbnails/66eb00a2-8591-4fe0-be8a-a43e430eb4ce.jpgBUCT: Beautiful hair relishes no scalp problems (2022) - Project Promotion [English]**Title:** Beautiful hair relishes no scalp problems **Description:** Our scalps microenvironment suffer from a variety of irritations, for which hair loss become a common and distressing symptom. Therefore, E. coli Nissle 1917 is engineered by BUCT to consume fatty acids that are one of the important causes of microbial growth and low hair density. While E. coli can stay well in scalp, the probiotics synthesizing hair growth factor caffeine, and perfume molecular 2-phenylethal alcohol to improve scalps microenvironment and hair growth. [Wiki](https://2022.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/0c1da2c2-26d1-4024-8b48-bbfcb04b4d12/b83e3be6-eece-40bf-8abe-b2823d35fa47-master.m3u8https://video.igem.org/videos/embed/2uLUhLzMUBpbj75afteSWo1200182022-09-02T04:56:38.585ZYES2022 Project PromotionsNOhttps://video.igem.org/w/fZZUvVXW6DToAzGz5ajdR8https://video.igem.org/lazy-static/thumbnails/d18b1b45-c763-42db-813e-a5cf24ec0ca7.jpgMissouri_Miners: Intro to MOTHY (2022) - Project Promotion [English]**Title:** Intro to MOTHY **Description:** For this project, we decided to tackle the spongy moth problem. They are an infestation affecting many parts of America. The goal is to modify baker’s yeast into producing a sex pheromone that moths are attracted to by inputting a section of the moth’s own DNA into the yeast. The video goes more in-depth on how we want to apply this to other types of infestations across the globe. [Wiki](https://2022.igem.wiki/missouri-miners)https://static.igem.org/peertube/streaming-playlists/hls/79790589-971d-45a5-a668-4019271232f1/39a6d6f6-c0d9-42d6-a5aa-db70f07412a6-master.m3u8https://video.igem.org/videos/embed/fZZUvVXW6DToAzGz5ajdR854062022-09-02T05:10:42.534ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ecoQtZK2KD4mTitZAs2gGmhttps://video.igem.org/lazy-static/thumbnails/4d971b31-a85c-48a3-bb4c-2380a01ad425.jpgUSTC: High efficiency biosynthesis of Borneol (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it has no captions. **Title:** High efficiency biosynthesis of Borneol **Description:** Borneol, a precious monoterpenoid from tropical trees, is widely used in pharmaceutical industry for its anti-inflammatory, antimicrobial, and antiviral activities. Due to the limitations of technology, today’s production of borneol still highly depends on extraction from Borneol camphor（Cinnamomum camphora）. However, because of the huge demand and low efficiency of extraction, the resource of borneol camphor is on the edge of depletion. To protect the forests, USTC iGEMers decide to find a responsible way to biosynthesize borneol with both high purity and high production. We choose Yarrowia lipolytica as our platform, for its native MVA pathway and the sufficient supply of acetyl-CoA and other necessary material, which could greatly improve the efficiency of terpene synthesis. [Wiki](https://2022.igem.wiki/ustc)https://static.igem.org/peertube/streaming-playlists/hls/6ade0ea3-3e0a-455e-9c0b-261abf623208/6e9ad461-c943-4eef-9df9-7ac5cc4eb045-master.m3u8https://video.igem.org/videos/embed/ecoQtZK2KD4mTitZAs2gGm1200102022-09-02T05:12:38.862ZYES2022 Project PromotionsNOhttps://video.igem.org/w/x67o9vdEFoH23vJE6cFKMLhttps://video.igem.org/lazy-static/thumbnails/223e3dc8-f5cb-4425-94c3-04de2791c0a8.jpgMcGill: The future of probiotics (2022) - Project Promotion [English]**Warning:** No modified organisms, or the product from the team's project was used in the filming of this video. **Title:** The future of probiotics **Description:** Statins. Ezetimibe. These are just two of the drugs that lower cholesterol in your body, and do so with incredible efficiency. Yet, why do people who take these still suffer from the effects and consequences of high cholesterol levels? The key is timing. Many of these people need the medication earlier, but no one wants to take a pill if they are deemed healthy, and especially not if the pills will cause nasty side effects. Here at McGill, we have created CoBiota, a probiotic that will lower cholesterol both endogenous and dietary. No more waiting. Take control of your own health now. [Wiki](https://2022.igem.wiki/mcgill)https://static.igem.org/peertube/streaming-playlists/hls/fbc1f344-0e6a-4c4c-a3d2-1209cb1cfad2/c33318a3-12c5-416e-80e4-77732297ff78-master.m3u8https://video.igem.org/videos/embed/x67o9vdEFoH23vJE6cFKML10402352022-09-02T05:18:21.529ZYES2022 Project PromotionsNOhttps://video.igem.org/w/uJMg5DHXPo1TzHaHhsR8UBhttps://video.igem.org/lazy-static/thumbnails/a9202863-4b03-4c44-b0ce-bddb36721caf.jpgCAU_China: COM ON (2022) - Project Promotion [English]**Title:** COM ON **Description:** Biomineralization is a process in which bacteria generate inorganic salts around themselves and crystallize. CAU_China set out from the principle of biomineralization, improving Pseudomonas fluorescens 2P24 strain by means of synthetic biology, enabling it to produce a dense COM protective film on the surface of stone relics. [Wiki](https://2022.igem.wiki/cau-china)https://static.igem.org/peertube/streaming-playlists/hls/e8b90366-d182-4f06-8321-c45337b184ef/789b71da-ebb5-4292-ab3f-07e0c0409abd-master.m3u8https://video.igem.org/videos/embed/uJMg5DHXPo1TzHaHhsR8UB11903182022-09-02T05:18:51.579ZYES2022 Project PromotionsNOhttps://video.igem.org/w/skLbuFjcRmoxbWJMSxA3Rzhttps://video.igem.org/lazy-static/thumbnails/33c8fc2e-1155-46a5-8151-c76b5e6f4d7c.jpgCalgary: Cellucoat (2022) - Project Promotion [English]**Title:** Cellucoat **Description:** iGEM Calgary presents Cellucoat, a sustainable and antimicrobial fruit packaging material. With the cost of groceries rising, Canadian families are wasting $1100 worth of food waste, annually. Our project addresses this issue in 3 ways: developing an antimicrobial packaging, reducing plastic waste by using a strong alternative packaging material and reusing fruit waste for a sustainable approach. [Wiki](https://2022.igem.wiki/calgary)https://static.igem.org/peertube/streaming-playlists/hls/d54ff6d9-c87c-4c5c-9c09-0690dd6a2543/1e558049-b2ab-4cc0-8dde-3940f6bf7e23-master.m3u8https://video.igem.org/videos/embed/skLbuFjcRmoxbWJMSxA3Rz12001342022-09-02T05:20:12.889ZYES2022 Project PromotionsNOhttps://video.igem.org/w/25cqmxtFep2mgMRwQCSRd5https://video.igem.org/lazy-static/thumbnails/9a3c0b71-27ee-469c-a33a-c821da58e17a.jpgRBHS_SanDiego_CA: RBHS Pteris Vittata Model (2022) - Project Promotion [English]**Title:** RBHS Pteris Vittata Model **Description:** Our project is to model the arsenic sequestering mechanism of Pteris Vittata for the purpose of phytoremediation. [Wiki](https://2022.igem.wiki/rbhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/08af26c8-eadd-47f0-940c-06a82a721fb0/68e13ca0-a860-4d73-9a1c-2e025421d449-master.m3u8https://video.igem.org/videos/embed/25cqmxtFep2mgMRwQCSRd5870142022-09-02T05:21:29.435ZYES2022 Project PromotionsNOhttps://video.igem.org/w/pjUYTzvTXq9Jp23E7BY7Gthttps://video.igem.org/lazy-static/thumbnails/66b49b65-013d-4229-bc9f-b8bdf69b5055.jpgWorldshaper-NJBIOX: Regeneration of shrimp and crab shells waste: an innovative ... (2022) - Proj...**Title:** Regeneration of shrimp and crab shells waste: an innovative way to produce biofuel **Description:** Biofuel is a promising alternative solution in response to the depletion of fossil energy but is limited in use for the high price. This year, our team reused kitchen waste, especially shrimp and crab shells as the raw material, to produce biofuel, butyl butanoate. Our goal is to produce biofuel economically and meanwhile curb environmental pollution in a renewable way. [Wiki](https://2022.igem.wiki/worldshaper-njbiox)https://static.igem.org/peertube/streaming-playlists/hls/bce63a47-29f7-4a08-ac3c-639b1ed5dd33/7e95de95-391a-4209-8425-7a20824bebb6-master.m3u8https://video.igem.org/videos/embed/pjUYTzvTXq9Jp23E7BY7Gt1100362022-09-02T05:32:53.134ZYES2022 Project PromotionsNOhttps://video.igem.org/w/vftEyM6V8XUjzPSYYqbgdphttps://video.igem.org/lazy-static/thumbnails/bd8e3930-c070-4acb-84b8-3786ba8d367c.jpgTAMU: PET-X (2022) - Project Promotion [English]**Title:** PET-X **Description:** Our team at Texas A&M is tackling the critical challenge of plastic pollution, specifically targeting polyethylene terephthalate (PET) waste, using bacteria. We aim to achieve this through surface display of PET-degrading enzymes PETase and MHETase on Escherichia coli. Our efforts are also directed towards developing a platform for high throughput screening and directed evolution of these PET-degrading enzymes for developing variants exhibiting high activity and thermal stability. [Wiki](https://2022.igem.wiki/tamu)https://static.igem.org/peertube/streaming-playlists/hls/ecde7ba7-da2c-477f-b859-f0f1f985adfb/2a6005cb-4c64-4146-90ed-9ce6718385a7-master.m3u8https://video.igem.org/videos/embed/vftEyM6V8XUjzPSYYqbgdp1080222022-09-02T05:52:37.041ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mMWQ3V2LmiPVjxsNHQpxdrhttps://video.igem.org/lazy-static/thumbnails/43187f3a-5d0c-4b95-ad37-d59c9ad4637f.jpgUOregon: Accessible biosensor for detection of concussion biomarkers (2022) - Project Promotion [...**Title:** Accessible biosensor for detection of concussion biomarkers **Description:** Mild traumatic brain injuries, aka “concussions”, affect millions of people every year, and estimates range from 300,000 to 3.8 million for sports-related concussions in the US alone. We envision a world where people can lead active lives without having to worry about complications from undiagnosed concussions. Our hope is to develop a sensor that is accessible to both athletes and non-athletes. We are UOiGEM: Keeping things safe so you can have fun. [Wiki](https://2022.igem.wiki/uoregon)https://static.igem.org/peertube/streaming-playlists/hls/a8610836-ab99-41cc-bc5f-a173f0fcbce5/1f71d910-55fe-4d62-a3a3-26af0625b5c5-master.m3u8https://video.igem.org/videos/embed/mMWQ3V2LmiPVjxsNHQpxdr11703442022-09-02T06:03:54.647ZYES2022 Project PromotionsNOhttps://video.igem.org/w/26RirJsBtLDLDJDtv1zH7ghttps://video.igem.org/lazy-static/thumbnails/ea5c784a-2452-4ac4-99d2-5a4f91dbf90b.jpgUMaryland: Nitrogen Bioremediation (2022) - Project Promotion [English]**Title:** Nitrogen Bioremediation **Description:** UMaryland iGEM is continuing to develop solutions to protect our Chesapeake Bay. With nitrates being the most soluble nutrient in the Bay, we are developing a nitrate bioremediation system. Our engineered E. coli drives nitrate uptake by favoring their storage as nitrogen-rich granules. To reduce dependence on energy-intensive fertilizer synthesis, our system facilitates nitrate reuse. This is housed in a bioreactor to allow agricultural producers to decrease nitrates in runoff. [Wiki](https://2022.igem.wiki/umaryland)https://static.igem.org/peertube/streaming-playlists/hls/08ea3d7c-540d-4e25-839e-d19a30777fb7/8a0395e7-f741-4622-9f40-dfd719080ba6-master.m3u8https://video.igem.org/videos/embed/26RirJsBtLDLDJDtv1zH7g1180192022-09-02T06:04:38.355ZYES2022 Project PromotionsNOhttps://video.igem.org/w/hZfXEXwGZ3ek5neQncbD1ihttps://video.igem.org/lazy-static/thumbnails/1f180acd-ad2d-481a-817d-332cb3cf2ba1.jpgITESO_Guadalajara: BerryVax, the best of biotechnology and agronomy (2022) - Project Promotion [E...**Title:** BerryVax, the best of biotechnology and agronomy **Description:** Berries are one of the most important type of fruits in Mexico, with 900. 000 tons being produced each year. Pests, climate change and water scarcity were damaging our producers and their fields. With the help of local and native producers, at iGEM ITESO we decided to give life to Berryvax, an integrated biotechnological solution based on respect and care for the Earth. Berryvax is capable of bettering the plants’ immune system, protecting them against pathogenic fungi, improving fruit quality and lowering water consumption of each plant. [Wiki](https://2022.igem.wiki/iteso-guadalajara)https://static.igem.org/peertube/streaming-playlists/hls/8990d531-a897-4f02-824d-c7b357986725/b349707c-f5ef-4fde-9d24-d57d549965fc-master.m3u8https://video.igem.org/videos/embed/hZfXEXwGZ3ek5neQncbD1i1170512022-09-02T06:07:35.363ZYES2022 Project PromotionsNOhttps://video.igem.org/w/w2Lt78CwAjP9HtkgHRh1w5https://video.igem.org/lazy-static/thumbnails/b970c9a8-e435-4329-8cd4-5add8dae679c.jpgITESO_Guadalajara: BerryVax, the best of biotechnology and agronomy (2022) - Project Promotion [S...**Title:** BerryVax, the best of biotechnology and agronomy **Description:** Berries are one of the most important type of fruits in Mexico, with 900. 000 tons being produced each year. Pests, climate change and water scarcity were damaging our producers and their fields. With the help of local and native producers, at iGEM ITESO we decided to give life to Berryvax, an integrated biotechnological solution based on respect and care for the Earth. Berryvax is capable of bettering the plants’ immune system, protecting them against pathogenic fungi, improving fruit quality and lowering water consumption of each plant. [Wiki](https://2022.igem.wiki/iteso-guadalajara)https://static.igem.org/peertube/streaming-playlists/hls/f3314ebb-0bbf-46e0-93d9-3ee278082240/c4e601bd-9b8f-48f2-82eb-0e295d584b7e-master.m3u8https://video.igem.org/videos/embed/w2Lt78CwAjP9HtkgHRh1w5117062022-09-02T06:10:44.935ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nm9HS7GRE8wvypbeh5MBE6https://video.igem.org/lazy-static/thumbnails/44bba14f-56c5-4499-a78b-429a02d2146a.jpgShym_BIL_NIS: Plastikaiensis (2022) - Project Promotion [English]**Title:** Plastikaiensis **Description:** А bacterium Ideonella sakaiensis which was recently discovered, is able to use plastic as its major energy and carbon source. It’s done thanks to two enzymes, which convert PET efficiently into its two environmentally benign monomers. We take the genes that synthesize the PETase and MHETase enzymes and implement them into Pseudomonas putida bacterium. Due to the fact that P.putida survives in harsh environmental conditions, it is able to adapt to dramatic temperature changes in Kazakhstan. Therefore , we are creating a plastic-degrading bacterium, which is adapted to the sharply continental climate of our country. In this way, Plastikaieinsis will help to solve the problem of plastic contamination in our country. [Wiki](https://2022.igem.wiki/shym-bil-nis)https://static.igem.org/peertube/streaming-playlists/hls/ace02989-a2c2-4ae3-baaa-fc011633e115/cde06ad2-df50-4edc-a549-6965fb57f292-master.m3u8https://video.igem.org/videos/embed/nm9HS7GRE8wvypbeh5MBE61060402022-09-02T06:11:45.662ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mD8ypVVyZW93pSVgy4ikaQhttps://video.igem.org/lazy-static/thumbnails/517423f5-a0df-486a-8814-900e6df4e8db.jpgMcMaster_A: McMaster SynBio: Oncolytic Chimeric AAV Phage (onCAP): A Novel Appro... (2022) - Proj...**Title:** McMaster SynBio: Oncolytic Chimeric AAV Phage (onCAP): A Novel Approach to B-cell lymphoma Therapeutics **Description:** McMaster SynBio Team introduces Oncolytic Chimeric AAV Phage (onCAP), a novel adeno-associated virus phage (AAVP) targeting B-cell lymphoma. We hope to use phages’ unique characteristics to tackle delivery, specificity and efficacy issues specific to immuno-based and molecular treatments. By expressing a CD22-targeting short-chain variable fragment, the phage will induce the production of TNF-ɑ and granzyme B to cause apoptosis in cancerous B-cells. [Wiki](https://2022.igem.wiki/mcmaster-a)https://static.igem.org/peertube/streaming-playlists/hls/a725f374-034e-411e-9b4d-706049f04dfe/0f062989-3b73-4fad-bb8e-5116907e6851-master.m3u8https://video.igem.org/videos/embed/mD8ypVVyZW93pSVgy4ikaQ12001102022-09-02T06:26:04.748ZYES2022 Project PromotionsNOhttps://video.igem.org/w/vFdA3wSJgc2s1VdM44Tixuhttps://video.igem.org/lazy-static/thumbnails/100d44fc-a7da-4b9b-b30b-ad256441eacf.jpgZhejiang_United: 2’-fucosyllactose cell factory (2022) - Project Promotion [English]**Title:** 2’-fucosyllactose cell factory **Description:** 2’-fucosyllactose (2’-FL) is an ingredient of infant milk formula and plays an important role in the growth and development of infants and children. This project expresses the genes and related transporters required in the synthesis pathway of 2’-FL through chromosomal integration. Large-scale production of 2’-FL is achieved by constructing a high-yield 2’-FL Saccharomyces cerevisiae cell factory to meet market demand. [Wiki](https://2022.igem.wiki/zhejiang-united)https://static.igem.org/peertube/streaming-playlists/hls/f052c900-3142-4671-ae43-d02ecb59d0ce/1174a50a-f686-47bc-86a0-f612b1e35961-master.m3u8https://video.igem.org/videos/embed/vFdA3wSJgc2s1VdM44Tixu1200132022-09-02T06:35:04.630Z2’-FLSaccharomycesCerevisiaeYES2022 Project PromotionsNOhttps://video.igem.org/w/8HcJu2FNH6FGhiU2cwKGirhttps://video.igem.org/lazy-static/thumbnails/ba773591-1b9d-4dbb-a1ef-ca79a62fa03d.jpgDuesseldorf: No title (2022) - Project Promotion [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/duesseldorf)https://static.igem.org/peertube/streaming-playlists/hls/3e70b211-a04c-4397-824f-ca8c54e76d4b/becbc45d-a131-4296-82ed-680031e54ced-master.m3u8https://video.igem.org/videos/embed/8HcJu2FNH6FGhiU2cwKGir1200502022-09-02T06:35:48.693ZYES2022 Project PromotionsNOhttps://video.igem.org/w/g1BKVWg2FHqWhXtWw2wgaxhttps://video.igem.org/lazy-static/thumbnails/5936010a-ea57-4ce4-9f6b-ab67b697240c.jpgCosta_Rica: Lactobacillus casei toolbox (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Lactobacillus casei toolbox **Description:** Given the lack of well-characterized genetic parts, plasmids, protocols and the potential of this GRAS microorganism to be applied in many industries, we decided to develop a toolbox for L.casei. This toolbox will allow future iGEM teams and other laboratories that work with Lactobacillus to carry out their projects. [Wiki](https://2022.igem.wiki/costa-rica)https://static.igem.org/peertube/streaming-playlists/hls/798f1dbe-8300-484a-8f25-a426ad1659c5/25dc688f-7c3b-47eb-84c5-96acb18c6eab-master.m3u8https://video.igem.org/videos/embed/g1BKVWg2FHqWhXtWw2wgax1200992022-09-02T06:50:16.358ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3hoSEPrCqHDaXp8fSAWRxjhttps://video.igem.org/lazy-static/thumbnails/9305949f-37ad-4873-b650-257e503f7c23.jpgDNHS_SanDiego_CA: OxyBANzone: An In Situ Oxybenzone Detection System (2022) - Project Promotion [...**Title:** OxyBANzone: An In Situ Oxybenzone Detection System **Description:** An introduction to our project: using synthetic biology to create an oxybenzone detection system that will simplify the process of evaluating oxybenzone levels in the ocean. [Wiki](https://2022.igem.wiki/dnhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/127c4624-fcb0-4107-92e8-b18fcfbccecc/16b6520e-124b-4f5e-85a3-3fc3523f06bf-master.m3u8https://video.igem.org/videos/embed/3hoSEPrCqHDaXp8fSAWRxj1160342022-09-02T06:57:43.638ZYES2022 Project PromotionsNOhttps://video.igem.org/w/s4dpB79H3mN9KCMt2eqcoUhttps://video.igem.org/lazy-static/thumbnails/42c24677-a1ea-4be8-9740-25d39a765935.jpgWorldshaper-Nanjing: Probiotics-Livestock-Grassland: Dual Healing for Gut and Soil (2022) - Proje...**Title:** Probiotics-Livestock-Grassland: Dual Healing for Gut and Soil **Description:** The long existing problem of soil salinization has worsened in recent years. Our team genetically modified Clostridium tyrobutyricum, an obligate anaerobe, to a facultative anaerobe. By doing so, we wish to tackle the worsening issue while contributing to the reduction of antibiotic use, as C. tyrobutyricum produces butyric acid, which acts both as a promising substitution of antibiotics and a neutralizing agent for salt-affected soils. [Wiki](https://2022.igem.wiki/worldshaper-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/d3007b88-3ad5-4b55-a9d8-e6d0465e3c2c/c5bcc4d8-e7be-403d-a7fe-aad5c9741b55-master.m3u8https://video.igem.org/videos/embed/s4dpB79H3mN9KCMt2eqcoU1200662022-09-02T07:02:17.123ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ousbdEaHzMEKc2t9rB2MU7https://video.igem.org/lazy-static/thumbnails/1d496862-7b43-4ae9-b517-6df56e16b2d6.jpgHS_China: How to ACTUALLY treat lactose intolerance (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it has no captions. **Title:** How to ACTUALLY treat lactose intolerance **Description:** #lactoseintolerance #treatment #dairy #E.Colinissle #promotionalvideo [Wiki](https://2022.igem.wiki/hs-china)https://static.igem.org/peertube/streaming-playlists/hls/b62201fa-0d7d-4864-bc65-b800991cf39a/37055678-e406-4a54-ba4b-eb57273f3537-master.m3u8https://video.igem.org/videos/embed/ousbdEaHzMEKc2t9rB2MU7980612022-09-02T07:15:40.418ZYES2022 Project PromotionsNOhttps://video.igem.org/w/m4Z9UhPSLoq1yQSLi9QcsRhttps://video.igem.org/lazy-static/thumbnails/33645531-c8d5-4030-b823-8b4528ce8e80.jpgUBC_Vancouver: Synaestivum - Heat Resistant Transgenic Wheat (2022) - Project Promotion [English]**Title:** Synaestivum - Heat Resistant Transgenic Wheat **Description:** Food insecurity continues to grow across the world with drastic changes in climate; with warmer weather patterns and rising temperatures, the need for heat resistant crops grows ever more urgent. UBC iGEM introduces Synaestivum, a transgenic line of wheat heat-inducibly expressing enzymes that enhancing the crop’s ability to offset negative molecular and physiological effects of heat stress. Music: Arabian Dreams (New Song74) By Dj Andrés ” El Chico Mezcla” https://soundcloud.com/cacvh29 Music provided by https://www.plugnplaymusic.net [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/a2853a01-d199-4aab-94fb-48b1fc916641/7d93aae3-c779-4e33-ac7d-26c393c9af44-master.m3u8https://video.igem.org/videos/embed/m4Z9UhPSLoq1yQSLi9QcsR1190892022-09-02T07:18:04.331ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nhXgccYBubqQUgJzdYSLyohttps://video.igem.org/lazy-static/thumbnails/96025602-2477-4603-84e7-de824ba5792a.jpgUBC_Vancouver: Synaestivum - Heat Resistant Transgenic Wheat (2022) - Project Promotion [French]**Title:** Synaestivum - Heat Resistant Transgenic Wheat **Description:** Food insecurity continues to grow across the world with drastic changes in climate; with warmer weather patterns and rising temperatures, the need for heat resistant crops grows ever more urgent. UBC iGEM introduces Synaestivum, a transgenic line of wheat heat-inducibly expressing enzymes that enhancing the crop’s ability to offset negative molecular and physiological effects of heat stress. Music: Arabian Dreams (New Song74) By Dj Andrés ” El Chico Mezcla” https://soundcloud.com/cacvh29 Music provided by https://www.plugnplaymusic.net [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/ac6dde5a-7464-4cdc-a3b5-7e08e1ed0296/1835b822-3695-429e-b6b7-e301a916e114-master.m3u8https://video.igem.org/videos/embed/nhXgccYBubqQUgJzdYSLyo119092022-09-02T07:19:31.001ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kpGzoEo4Hne1qBTi1dWVpXhttps://video.igem.org/lazy-static/thumbnails/bd7ab35e-f462-48a4-a0a3-f1a6372881e7.jpgUBC_Vancouver: Synaestivum - Heat Resistant Transgenic Wheat (2022) - Project Promotion [Spanish]**Title:** Synaestivum - Heat Resistant Transgenic Wheat **Description:** Food insecurity continues to grow across the world with drastic changes in climate; with warmer weather patterns and rising temperatures, the need for heat resistant crops grows ever more urgent. UBC iGEM introduces Synaestivum, a transgenic line of wheat heat-inducibly expressing enzymes that enhancing the crop’s ability to offset negative molecular and physiological effects of heat stress. Music: Arabian Dreams (New Song74) By Dj Andrés ” El Chico Mezcla” https://soundcloud.com/cacvh29 Music provided by https://www.plugnplaymusic.net [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/9d2cbf35-cc79-48df-823b-65d420b14bd1/ea72631e-765a-407b-9f5c-69658ffbe478-master.m3u8https://video.igem.org/videos/embed/kpGzoEo4Hne1qBTi1dWVpX119022022-09-02T07:20:55.001ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4EqKzSbQUHMgypeXzdxNYJhttps://video.igem.org/lazy-static/thumbnails/668e9761-f99c-4320-b74e-ff0eb55485f0.jpgCUHK-HongKong-SBS: Antigen-based Tumor Recognizing Universal System (ATREUS) (2022) - Project Pro...**Title:** Antigen-based Tumor Recognizing Universal System (ATREUS) **Description:** CAR-T cell therapy is a potent cancer therapy particularly for blood cancer. However, its low efficacy in solid tumors has been a great obstacle in its widespread use. This year, our team developed Antigen-based Tumor REcognizing Universal System (ATREUS) to overcome the limitations of this therapy. In the end, we make tumors glow – turn cold tumors hot, and make them visible to CAR-T cells. [Wiki](https://2022.igem.wiki/cuhk-hongkong-sbs)https://static.igem.org/peertube/streaming-playlists/hls/1da8eecf-f583-4e38-8828-34ced54705ca/a57f9ea4-4340-4ca3-9d0f-3dde689095fa-master.m3u8https://video.igem.org/videos/embed/4EqKzSbQUHMgypeXzdxNYJ1200262022-09-02T07:37:43.710ZYES2022 Project PromotionsNOhttps://video.igem.org/w/dTzsRmK76F46bjg1pP6eZAhttps://video.igem.org/lazy-static/thumbnails/8e6a28d6-ad61-4136-8a2d-09ed0958948b.jpgKCIS_Xiugang_Taipei: NObesity (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it contains wrong or mismatched captions. **Title:** NObesity **Description:** The WHO identifies obesity as a global crisis leading to several chronic diseases. Several factors trigger obesity, stress in the environment is one of the major triggers. Many products claim to boost the body's metabolism and aid weight loss. We engineered yeast with overexpression of SNF1, a metabolism sensor, to show if stress had a lower effect on the cell health when it combined with two local products that claim to boost the metabolism, green tea and brown algae extracts. [Wiki](https://2022.igem.wiki/kcis-xiugang-taipei)https://static.igem.org/peertube/streaming-playlists/hls/686137ed-4851-4541-8d0b-9eb331998178/355e6bce-b945-4b69-8142-02e1a25f007e-master.m3u8https://video.igem.org/videos/embed/dTzsRmK76F46bjg1pP6eZA1210572022-09-02T07:39:35.837ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1hMAjQGq7eKbVyM2V25cdphttps://video.igem.org/lazy-static/thumbnails/74b320fe-a28a-4162-aaf9-c0be3efe6488.jpgCAFA_China: Synthetic Life‘s Kill Switch (2022) - Project Promotion [English]**Title:** Synthetic Life‘s Kill Switch **Description:** We are CAFA-China, the first team from the Academy of Fine Arts in the history of iGEM in China. Our design is based on the kill switch. When the bacteria are induced to rupture, the β-galactosidase in vivo will be released and thus hydrolyze the substrates X-Gal to a blue product. We used this design for our art project, the Tears of Horus' Eye. [Wiki](https://2022.igem.wiki/cafa-china)https://static.igem.org/peertube/streaming-playlists/hls/0257ff4d-0e26-4ce6-9e3d-40df90b873eb/ba0a3277-314d-46ca-8aca-864ea1bd3694-master.m3u8https://video.igem.org/videos/embed/1hMAjQGq7eKbVyM2V25cdp1200302022-09-02T07:53:23.832ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9fSxZGUfu7LRMBV37pxrW9https://video.igem.org/lazy-static/thumbnails/1ba94f69-a954-4ef6-ac10-b15314b77e5b.jpgPortland: ACDC - The Accessible Cancer Detection Cell (2022) - Project Promotion [English]**Title:** ACDC - The Accessible Cancer Detection Cell **Description:** Current methods of cancer detection are often expensive due to sequencing and instrumental factors. This makes it very inaccessible to many who have geographical and financial barriers. As early cancer detection becomes increasingly vital in the fight against cancer, several new methods are being explored. ACDC is a genetically modified E.Coli that will endogenously detect cancer using growth no growth screening. #cancer #diagnostics #accessibility [Wiki](https://2022.igem.wiki/portland)https://static.igem.org/peertube/streaming-playlists/hls/42dcacf4-f60f-4c80-86c1-ab15879a1fd0/22ca6155-77e4-46ed-9286-edf6bc58707d-master.m3u8https://video.igem.org/videos/embed/9fSxZGUfu7LRMBV37pxrW91190382022-09-02T07:54:52.660ZYES2022 Project PromotionsNOhttps://video.igem.org/w/98qwceaDJoaoy777jjfcWqhttps://video.igem.org/lazy-static/thumbnails/d6745e82-1941-40d2-944b-e2b350d58bc6.jpgTec-Chihuahua: Agrocapsi: A biofungicide against Phytophthora capsici (2022) - Project Promotion ...**Title:** Agrocapsi: A biofungicide against Phytophthora capsici **Description:** Mexican gastronomy brings such an important cultural value to mexicans that it was declared World Heritage by UNESCO. One of its main ingredients is chilli. This fruit, apart from providing us with vitamins and nutrients, gives countries like Mexico, India, and China substantial economic gains. Unfortunately, these crops have losses up to a 100% due to wilting. This disease is caused by the oomycete Phytophthora capsici. It adapts easily to different solutions, which leads to the development of epidemics. This opens the possibility of chili shortage for at least a year. Current treatments consist in using different agrochemicals. This puts environmental and human health at risk. Hence, Agrocapsi was born, a biofungicide containing antimicrobial peptides and iRNAs that offer an effective response against this oomycete. It is chemical free, doesn’t promote pathogen resistance, and doesn’t harm environmental or human health. Agrocapsi protects food accessibility as well as an icon of our identity. [Wiki](https://2022.igem.wiki/tec-chihuahua)https://static.igem.org/peertube/streaming-playlists/hls/41d26d50-c1b9-4719-beb3-24faf75d05f0/4cad12d6-2f1a-418c-b6f6-beb202a5986f-master.m3u8https://video.igem.org/videos/embed/98qwceaDJoaoy777jjfcWq12001582022-09-02T07:58:31.212ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8RStfu1BhaPVoA6imAFfyGhttps://video.igem.org/lazy-static/thumbnails/510675fc-275d-47ae-ad10-03a7c47ff90f.jpgGuangxi-U-China: Engineered Bacteria for Immunotherapy of Triple Negative Breast... (2022) - Proj...**Title:** Engineered Bacteria for Immunotherapy of Triple Negative Breast Cancer (TNBC) **Description:** This work is focused on the treatment of triple negative breast cancer that has been considered as one of the most aggressive subtypes with high risk of recurrence and poor prognosis. We are aimed to construct live tumor-targeting bacteria that can specifically target to breast cancer cells, intervene the metabolism of glucose, clear away lactic acid, and thus re-boost macrophage driven anti-tumor immune responses. [Wiki](https://2022.igem.wiki/guangxi-u-china)https://static.igem.org/peertube/streaming-playlists/hls/3fa684bb-4fe2-452c-802a-12af501160d8/82fe5b21-296f-4bc0-8c1a-07a0a35eb6d9-master.m3u8https://video.igem.org/videos/embed/8RStfu1BhaPVoA6imAFfyG12001062022-09-02T08:01:07.921ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3UeS6kgsC2YyDSt4zBrmynhttps://video.igem.org/lazy-static/thumbnails/09eb7a61-4173-4169-8d16-1466246c9543.jpgNYU_Abu_Dhabi: NYU Abu Dhabi: ADx (2022) - Project Promotion [English]**Title:** NYU Abu Dhabi: ADx **Description:** Alzheimer's Disease is known to be both the most common neurodegenerative and age-related disease worldwide. Thus, the 2022 NYU Abu Dhabi iGEM team is working on an innovative diagnostic chip for Alzheimer's Disease, "ADx," in order to allow for early diagnosis simply using a blood sample. This would allow families and those affected to prepare and cherish their time together. [Wiki](https://2022.igem.wiki/nyu-abu-dhabi)https://static.igem.org/peertube/streaming-playlists/hls/177d7f44-96ca-49c8-ab47-c5550a42611d/57fa6113-4d28-4582-b567-c7c9bbba87b8-master.m3u8https://video.igem.org/videos/embed/3UeS6kgsC2YyDSt4zBrmyn12101082022-09-02T08:05:14.203ZYES2022 Project PromotionsNOhttps://video.igem.org/w/n2b7BibEPW5bgDFkp4BbpKhttps://video.igem.org/lazy-static/thumbnails/0ed6ad26-548a-40e5-b06a-8dbb2afc6fd6.jpgWVHS_SanDiego: The Defluorinator (2022) - Project Promotion [English]**Title:** The Defluorinator **Description:** PFAS has been produced in the U.S. since the 1940s and now encompasses a growing chemical family of chemical moieties. Since then, PFAS have been incorporated into numerous other industrial and consumer products due to their excellent grease/water repellent properties including: food wrapper/containers; carpets and upholstery for their stain resistance properties; paints, varnishes, ski wax; and even aqueous film forming forms used at airports and military facilities. Our project aims to use biodegradation as a potential to create a cost-effective, large-scale in situ remediation treatment for PFAS. We have developed the Defluorinator, using Haloacid and Fluoroacetate Dehalogenase which are two enzymes known for defluorination. We want to see which enzymes are most effective in breaking down PFAS by inserting engineered Pseudomonas into a PFAS and water solution. As an effort to work towards the Sustainable Development Goals set by the United Nations, this environmental project aims to develop a solution for cleaner water and sanitation for the entire biosphere. [Wiki](https://2022.igem.wiki/wvhs-sandiego)https://static.igem.org/peertube/streaming-playlists/hls/aa39e379-22f1-4e75-9bec-49c701281811/8f9f7da7-4b6f-4a8e-92a9-e24b6cfecb81-master.m3u8https://video.igem.org/videos/embed/n2b7BibEPW5bgDFkp4BbpK1200792022-09-02T08:25:57.627ZYES2022 Project PromotionsNOhttps://video.igem.org/w/qmPdPzeqyiqGQyLBkW2jvEhttps://video.igem.org/lazy-static/thumbnails/839f606d-b27f-4329-89f6-7a5b0439321e.jpgHopkins: G-Roots (2022) - Project Promotion [English]**Title:** G-Roots **Description:** Roots are guided by gravity in order to grow into the ground, but in space this process is disrupted by the lack of gravity, making plants unable to grow well. Our solution is to restore directional root growth by replacing the gravity cue with a magnetic cue. By increasing the ferritin in gravity sensing cells, roots will instead respond to the direction of a magnetic field. [Wiki](https://2022.igem.wiki/hopkins)https://static.igem.org/peertube/streaming-playlists/hls/c5434de2-9484-42fd-aed8-8e91132be268/c63ced89-c5ca-47ca-abbc-7d6b42bc4062-master.m3u8https://video.igem.org/videos/embed/qmPdPzeqyiqGQyLBkW2jvE1190612022-09-02T08:26:21.677ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4KkGDesYppiZTyNoSUBibthttps://video.igem.org/lazy-static/thumbnails/82a18b4f-e13c-4fb6-9513-1b57a4f0f1ed.jpgUCSC: The Accessible Future of Type 2 Diabetes Treatment (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it has the wrong intro sequence. **Title:** The Accessible Future of Type 2 Diabetes Treatment **Description:** Helo, the UCSC 2022 iGEM team, is interested in tackling the inaccessibility of Type 2 Diabetes (T2D) medication. Initially discovered in Gila Monster spit, Exendin-4 is a glucagon-like peptide 1 receptor agonist, and a leading form of T2D treatment. We have created an Exendin-4 producing generally regarded as safe (GRAS) S. cerevisiae, otherwise known as bakers yeast, as a cost-effective, at home propagable, thermally stable, and potentially orally administered T2D medication. [Wiki](https://2022.igem.wiki/ucsc)https://static.igem.org/peertube/streaming-playlists/hls/1e588a01-ecf8-49a5-a0e1-a510294a0c3b/5f3c71b0-87d6-47a7-b395-fd0ef589abe6-master.m3u8https://video.igem.org/videos/embed/4KkGDesYppiZTyNoSUBibt1200442022-09-02T08:39:44.388ZYES2022 Project PromotionsNOhttps://video.igem.org/w/pkMFYjGufHS3W14kRHzumqhttps://video.igem.org/lazy-static/thumbnails/0df84b12-663a-4705-816c-cef1bb2b58c5.jpgShanghaiTech_China: Mini Bioproduction Circle System on Mars Base (2022) - Project Promotion [Eng...**Title:** Mini Bioproduction Circle System on Mars Base **Description:** In the future, because of the growing human population and the limited number of resources on Earth, it is possible that humans will decide to go into space in search of another planet to live on. In the beginning, it is necessary to make use of the limited resources available on the alien planet to produce food and medicine.Like Earth, Mars is in the habitable zone of the solar system and has an atmosphere. It also has abundant resources on its surface, making it very likely that Mars will be the first step for human colonization. With this in mind, we designed the Mini Bioproduction Circle System (MBCS) based on ternary microbial symbiosis with the resources available on Mars to meet the food and drug production needs of human beings. [Wiki](https://2022.igem.wiki/shanghaitech-china)https://static.igem.org/peertube/streaming-playlists/hls/bd057a4e-02f0-4272-8cc8-6a23d783a928/95cfd3ec-1281-4cf3-a72b-c17861da86c2-master.m3u8https://video.igem.org/videos/embed/pkMFYjGufHS3W14kRHzumq1150552022-09-02T08:46:58.225ZYES2022 Project PromotionsNOhttps://video.igem.org/w/aXY81vaU8u6uMNqMTYQVG7https://video.igem.org/lazy-static/thumbnails/2aac5bee-a9c7-4ab5-b799-c765e75e95c8.jpgBulgaria: CADABRA - Cleaning Agent Developed For Antibiotic Resistance Annihilation (2022) - Proj...**Title:** CADABRA - Cleaning Agent Developed For Antibiotic Resistance Annihilation **Description:** This year our project – CADABRA (Cleaning Agent Developed For Antibiotic Resistance Annihilation ) focuses on the global spread of antibiotics as water pollutants. Because of this we developed an enzyme solution which breaks down antibiotics in waste water. We decided to use the enzyme b-lactamase as our main component, because it breaks down b-lactams which make up about 60% of modern antibiotics. [Wiki](https://2022.igem.wiki/bulgaria)https://static.igem.org/peertube/streaming-playlists/hls/50b2bdb1-4026-4993-b13a-1c9dbd41a0aa/fcd92c63-23b6-4f36-b683-afcf300aae7c-master.m3u8https://video.igem.org/videos/embed/aXY81vaU8u6uMNqMTYQVG71180212022-09-02T09:00:15.037ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3B85SBGRynJTYP4Kgsdo2ehttps://video.igem.org/lazy-static/thumbnails/43384b30-c1e5-4e1b-b1dc-fae2230b796f.jpgTecMonterrey_GDL: TecMonterrey GDL Neotech-e (2022) - Project Promotion [English]**Title:** TecMonterrey GDL Neotech-e **Description:** Over 80% of lakes and rivers in Mexico have trace levels of emergent contaminants such as : antibiotics , analgesics and pesticides. That´s why we are working on a system able to detect emerging contaminants through the enzymatic degradation of said components that result in a measurable fluorescent change easy to visualize , making sure its cost effective and easy to use. [Wiki](https://2022.igem.wiki/tecmonterrey-gdl)https://static.igem.org/peertube/streaming-playlists/hls/1519acc9-5951-47e2-b017-06e4264b0a7f/b57ec521-f8ac-438d-bea8-1bccbc40c9a1-master.m3u8https://video.igem.org/videos/embed/3B85SBGRynJTYP4Kgsdo2e1150162022-09-02T09:01:34.248ZYES2022 Project PromotionsNOhttps://video.igem.org/w/b4tPn6EyFsrSPiwNW129L1https://video.igem.org/lazy-static/thumbnails/7b2ebe83-3ca7-41c7-9e01-1c8d7cf41104.jpgUSTC-Software: MEI (2022) - Project Promotion [English]**Title:** MEI **Description:** Using a similarity comparison algorithm, we USTC-Software team is developing a project MEI to help researchers find efficient enzymes that can catalyze the target reaction. [Wiki](https://2022.igem.wiki/ustc-software)https://static.igem.org/peertube/streaming-playlists/hls/5177c2b0-b552-4c8f-a9c0-99ee5adc9e80/e9127f94-3d21-4e79-ba90-73f14965da55-master.m3u8https://video.igem.org/videos/embed/b4tPn6EyFsrSPiwNW129L11100162022-09-02T09:28:00.579ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3PQxnh8kjsCk4aCQfyuXHjhttps://video.igem.org/lazy-static/thumbnails/e0d744b2-f6a7-487b-a4e5-ca63044482ed.jpgCSU_CHINA: Diagnosing echinococcosis through multi-sgRNA bulletin of circulating... (2022) - Proj...**Title:** Diagnosing echinococcosis through multi-sgRNA bulletin of circulating cell-free DNA using CRISPR-Cas12a **Description:** Our diagnostic system for parasitic diseases tests a person's cell-free Circulating DNA (cfDNA) in their blood to see if they are infected with the parasite. We used the Recombinase Polymerase Amplification（RPA）to amplify cfDNA in blood. Then the amplification product was used to activate the trans-cleavage activities of CRISPR-Cas12A system, cut the nucleic acid probe we designed and synthesized. Finally, the colloidal gold test papers were used to detect the cut product. [Wiki](https://2022.igem.wiki/csu-china)https://static.igem.org/peertube/streaming-playlists/hls/16e0261a-c184-4e68-a522-adb0925ef238/924fc4d2-1530-4fb4-9660-1912c0be5b42-master.m3u8https://video.igem.org/videos/embed/3PQxnh8kjsCk4aCQfyuXHj1120712022-09-02T09:30:45.489ZYES2022 Project PromotionsNOhttps://video.igem.org/w/k8LKazqZCA4ncbmR7z2Uvbhttps://video.igem.org/lazy-static/thumbnails/49be3505-1bdc-40a8-8694-d2818a9ae8a0.jpgUTokyo: OPTOPASS - Optogenetic Passcode System for greater safety & security - (2022) - Project P...**Title:** OPTOPASS - Optogenetic Passcode System for greater safety & security - **Description:** Optopass is an Optogenetic Passcode System that can significantly contribute to the safe use and development of synthetic biology. Within the system, a sequence of different color inputs works as a cryptogram to express the genes of interest. We have designed a model in which the security is released by exposing S. cerevisiae to red, blue, and green light in the correct order and thereby triggering the desired metabolic pathway. #Optogenetics #Recombinase #Safety&Security [Wiki](https://2022.igem.wiki/utokyo)https://static.igem.org/peertube/streaming-playlists/hls/9af36a60-c0c8-4983-ad83-55ac91a93524/0b9889bd-2ead-47ba-8dfa-0d43faffa073-master.m3u8https://video.igem.org/videos/embed/k8LKazqZCA4ncbmR7z2Uvb12001072022-09-02T09:38:40.392ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9uZ8vHtfYByqQLQEzHD2cDhttps://video.igem.org/lazy-static/thumbnails/2a5b6451-a70b-40fc-81ae-cfeb59c3e18c.jpgHKU_HongKong: AMPed (2022) - Project Promotion [English]**Title:** AMPed **Description:** With Hong Kong’s love for fish being never-ending, many fish farms resort to antibiotics to ensure the wellness of fish. Our project involves producing antimicrobial peptides by engineering a microalgae chassis, Chlorella Autotrophica, to be added with fish feed for passive immunity. We hope to protect aquatic organisms from waterborne pathogens and enhance their fitness, in the form of a nutritious microalgal supplement. [Wiki](https://2022.igem.wiki/hku-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/44d52464-8dc2-4f9d-b070-d4fc3ab89a3f/513dc63e-b895-42c7-8307-e8d144895058-master.m3u8https://video.igem.org/videos/embed/9uZ8vHtfYByqQLQEzHD2cD12001402022-09-02T09:40:30.374ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tqQhcqqn1TddP1jNaS2JTehttps://video.igem.org/lazy-static/thumbnails/09dea22a-499a-41b8-ac0e-10737a054b5b.jpgFAFU: Call Me Mutation Tracker (2022) - Project Promotion [English]**Title:** Call Me Mutation Tracker **Description:** Since the outbreak of the COVID-19 in 2019， the prevention and treatment of human epidemics has become a research hotspot. Based on the human ACE2 structure，the FAFU team is working on a project to produce a protein or peptide that is more closely related to the COVID-19 spike protein. Using a random peptide library and machine evolution approach， we selected ten proteins and several 20 aa polypeptides. We will build a Sewage epidemiology model and devices, to provide early warning of viruses. In the process of human social practice， we investigated and interviewed the impact of the epidemic on local agriculture， fisheries and tourism， as well as the impact of the epidemic on local universities， schools and people. [Wiki](https://2022.igem.wiki/fafu)https://static.igem.org/peertube/streaming-playlists/hls/de1e58f2-6c14-498a-b299-d237a74c1feb/8e8bb273-90bc-402a-927a-c21653e15e54-master.m3u8https://video.igem.org/videos/embed/tqQhcqqn1TddP1jNaS2JTe1200352022-09-02T09:50:01.136ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tqsddJXkmn69Z3X2kQm7dGhttps://video.igem.org/lazy-static/thumbnails/4d0a26e3-961d-4319-bcfd-64baf263c065.jpgWageningen_UR: Colourectal (2022) - Project Promotion [English]**Title:** Colourectal **Description:** Colorectal cancer is the second most deadly cancer in the world, despite being relatively easy to treat when caught early. We, the iGEM team of Wageningen, saw an opportunity to improve the diagnostic process for colorectal cancer by producing Colourectal. Colourectal is an engineered probiotic capable of detecting colorectal cancer and in result colours the stool. This alarms the user that they could have colorectal cancer, allowing for further treatment. [Wiki](https://2022.igem.wiki/wageningen-ur)https://static.igem.org/peertube/streaming-playlists/hls/de10bf48-fed3-4354-af18-3b694f847678/80a7b60e-564c-44eb-b0bf-b9db0124d211-master.m3u8https://video.igem.org/videos/embed/tqsddJXkmn69Z3X2kQm7dG12002002022-09-02T09:51:05.398ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nvLpHyX5jHVyRao2LyBQsChttps://video.igem.org/lazy-static/thumbnails/8fe2e321-fd08-438a-a071-2887c4f4989a.jpgCHINA-FAFU: Microalgae Growing, Water Clearing (2022) - Project Promotion [English]**Warning:** No modified organisms, or the product from the team's project was used and/or released in the environment in the filming of this video. **Title:** Microalgae Growing, Water Clearing **Description:** CHINA - FAFU team project in combination with the present climate and the aquatic ecological environment is increasingly severe situation, in the Phaeodactylum tricornutum as the research object, by constructing engineering algae strains, improve their abilities of carbon and nitrogen and phosphorus absorption. Alleviate the current environmental problems, and at the same time realize the increase of lipids, fucoxanthin and other high economic value by-products. [Wiki](https://2022.igem.wiki/china-fafu)https://static.igem.org/peertube/streaming-playlists/hls/ae37d962-06c6-4c53-85a9-4c1e57dc7200/ece858a9-819e-4a1d-83eb-d9935fbc045b-master.m3u8https://video.igem.org/videos/embed/nvLpHyX5jHVyRao2LyBQsC1200862022-09-02T10:05:14.901ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2G4YAgvNZfsBfrBbYbzHZyhttps://video.igem.org/lazy-static/thumbnails/f4c312c3-5941-42f4-8b2b-d19359b59e4c.jpgTUDelft: SPYKE (2022) - Project Promotion [English]**Title:** SPYKE **Description:** With TU Delft’s project SPYKE, we are working on a cup with a novel bioelectric sensor for the rape drug GHB. This cup continuously measures the GHB concentration and warns you if the concentration increases rapidly by turning on a light. This way, we hope to protect the user against drink spiking and drug-facilitated sexual assault. With the SPYKE cup, you don’t have to worry about drink spiking ever again. [Wiki](https://2022.igem.wiki/tudelft)https://static.igem.org/peertube/streaming-playlists/hls/0db156ee-5a78-45e8-b2f8-3a4fda981396/eb953070-944c-4627-9a6a-77fbc3b7dd3f-master.m3u8https://video.igem.org/videos/embed/2G4YAgvNZfsBfrBbYbzHZy1200922022-09-02T10:04:43.873ZYES2022 Project PromotionsNOhttps://video.igem.org/w/wi57BwM6nUbetEaVky3dwmhttps://video.igem.org/lazy-static/thumbnails/af5d259f-a6eb-4c3d-a306-c3ed729ae20f.jpgVilnius-Lithuania: NanoFind (2022) - Project Promotion [Lithuanian]**Title:** NanoFind **Description:** NanoFind is a project by Vilnius-Lithuania iGEM 2022 team focusing on nanoplastic detection system. In this project, synthetic biology tools enable the production of peptides that are able to recognize and bind particular types of plastic nanoparticles. This video captures our team in action. It gives viewer a sneak peak of us generating ideas, working in a lab, creating designs and models as well as sharing obtained results and strongly standing together as a team. [Wiki](https://2022.igem.wiki/vilnius-lithuania)https://static.igem.org/peertube/streaming-playlists/hls/f55456d8-5750-431b-a0cf-e977af8de780/626e19a4-7318-4b37-ab34-0e09bad2737b-master.m3u8https://video.igem.org/videos/embed/wi57BwM6nUbetEaVky3dwm1150112022-09-02T10:13:30.501ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3q4x8AUC2dfXxyxGu6P5e2https://video.igem.org/lazy-static/thumbnails/deaf106f-9372-4c59-92d5-92c7008df85a.jpgHeidelberg: Of Heists, Secrets and Viruses (2022) - Project Promotion [English]**Title:** Of Heists, Secrets and Viruses **Description:** The iGEM Team of the University of Heidelberg has developed a novel idea to cure Herpes simplex encephalitis. E.coli cells are genetically engineered to produce siRNA, which can form protein complexes with viral mRNA, leading to it’s degradation. However, an evil corporation is trying to copy the idea. To fulfill their evil plan the corporation sends a special agent on his way to steal the modified cells of Team Heidelberg. [Wiki](https://2022.igem.wiki/heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/138e4eb1-7041-4131-872b-4ec49f50b52b/90cb0f87-a9c2-4634-a1ef-d13eb12d0d58-master.m3u8https://video.igem.org/videos/embed/3q4x8AUC2dfXxyxGu6P5e211801872022-09-02T10:16:17.749ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kAfPEoDXPrrpJx18S8kBnRhttps://video.igem.org/lazy-static/thumbnails/4e567db1-2acd-4318-a266-7108a05d68a1.jpgIISER-Pune2_India: AbDEN- Recombinant Antibodies against Dengue (2022) - Project Promotion [English]**Title:** AbDEN- Recombinant Antibodies against Dengue **Description:** Dengue fever is the most widely spread mosquito borne viral disease. However, there is still no cure against it. With our project- AbDEN, we have tried to solve this by delving into antibody engineering. Single Chain Fragment Variables (scFv) show great promise as therapeutic agents but with one major flaw, which we have attempted to solve with our creative solution. In AbDEN, we have adapted traditional monoclonal antibody therapy to be effective against Dengue with the power of bacterial expression. [Wiki](https://2022.igem.wiki/iiser-pune2-india)https://static.igem.org/peertube/streaming-playlists/hls/9ea60e94-6995-402e-bb59-861c27f5f947/c02178c8-6869-443d-b31e-d9f622ae4429-master.m3u8https://video.igem.org/videos/embed/kAfPEoDXPrrpJx18S8kBnR11901892022-09-02T10:24:35.348ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4Ki2esgpBy2BfzVwjsKLokhttps://video.igem.org/lazy-static/thumbnails/9b36ca71-37fd-4c5c-941f-f76a8601787b.jpgBIT: Etiological classification system of chronic musculoskeletal pain based on ... (2022) - Proj...**Title:** Etiological classification system of chronic musculoskeletal pain based on miRNA biomarkers **Description:** Using the highly correlated miRNAs as biomarkers, we constructed a CMP classification model. Based on the method of HCR-CRISPR, we achieve quantitative detection of different miRNAs and design paper chips and incubators according to the requirements to realize simple, high-throughput on-site rapid detection. We then use smartphones to read and analyze the reaction results, achieving pain classification and evaluation through the classification model. [Wiki](https://2022.igem.wiki/bit)https://static.igem.org/peertube/streaming-playlists/hls/1e56e346-ff6e-4b9b-bdbc-12d161d18dd7/c1199475-6d47-404a-be06-36e695438d38-master.m3u8https://video.igem.org/videos/embed/4Ki2esgpBy2BfzVwjsKLok1200822022-09-02T10:26:52.303ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1HnapkYsYtiMKzu17SYSoohttps://video.igem.org/lazy-static/thumbnails/55c8e73a-7cb2-403b-9214-67500328d82d.jpgIISER_Berhampur: Apt4UTI: An Aptamer Based Diagnostic Kit for UTI (2022) - Project Promotion [Eng...**Title:** Apt4UTI: An Aptamer Based Diagnostic Kit for UTI **Description:** Urinary Tract Infection is the third most prevalent infectious disease worldwide. The lack of awareness regarding its symptoms has led to Chronic UTIs which cause recurrence, antibiotic resistance and kidney infections. The current diagnostic methods include antibody-based assays which require cold-chain, technical expertise and laboratory conditions. We therefore propose a novel, cost-effective and point-of-care solution for the detection of UTI-causing bacteria using an aptamer-based strategy. [Wiki](https://2022.igem.wiki/iiser-berhampur)https://static.igem.org/peertube/streaming-playlists/hls/05c68943-687d-441a-a82d-33aeda76eeba/e8feb54b-2085-40f2-9306-8c392c05062e-master.m3u8https://video.igem.org/videos/embed/1HnapkYsYtiMKzu17SYSoo1190402022-09-02T10:36:59.293ZYES2022 Project PromotionsNOhttps://video.igem.org/w/bsPAjH19VxL1vv7bghwHgUhttps://video.igem.org/lazy-static/thumbnails/5522dff6-bac3-4390-8229-0a98e735f27f.jpgSheffield: rEvolver - Vivo La Evolution! (2022) - Project Promotion [English]**Title:** rEvolver - Vivo La Evolution! **Description:** We are excited to introduce the rEvolver: our modular continuous in vivo directed evolution kit. Gone are the days of complicated, labour-intensive directed evolution protocols - with our custom plasmids, we give YOU the freedom to evolve any desired sequence. Pair this with our easy-to-build and compact toroidal bioreactor, and we propel directed evolution into the 21st century and beyond. [Wiki](https://2022.igem.wiki/sheffield)https://static.igem.org/peertube/streaming-playlists/hls/54ba0dd8-c52d-441e-b3e0-85de0584e0ee/7bf087a6-a1a6-4198-8806-66528dc9a8d4-master.m3u8https://video.igem.org/videos/embed/bsPAjH19VxL1vv7bghwHgU120011282022-09-02T10:59:54.267ZYES2022 Project PromotionsNOhttps://video.igem.org/w/bHZoZR1G3fQ61TmDUkAyfEhttps://video.igem.org/lazy-static/thumbnails/5ad15165-f913-441c-8562-b82429a16aa5.jpgPatras_Medicine: Syn-PNOIA: Redefining Lung Cancer Diagnosis (2022) - Project Promotion [English]**Title:** Syn-PNOIA: Redefining Lung Cancer Diagnosis **Description:** Did you know that lung cancer is one of the most common types of cancer with more than 2.2 million cases recorded in 2020? It is by far the deadliest cancer type with approximately 1.8 million deaths worldwide amounting to a mortality rate of 81.4%. This high percentage is due to the late diagnosis of the disease, since the current diagnostic techniques lack the potential to be used as effective screening methods. Lately, Liquid Biopsies and more specifically blood sample examination has been successfully applied to cancer screening and diagnosis. In the context of liquid biopsies, we propose an innovative diagnostic tool, based on Synthetic Biology, combining Rolling Circle Amplification and molecular beacons, for the detection of a panel of over-expressed circular RNAs secreted in lung cancer patients’ circulation. Our technique offers a simple and cost-effective way to diagnose lung cancer in just 70 minutes by using standard lab equipment. Therefore, the early diagnosis provided by our tool, named Syn-PNOIA, can result in the increase of a patient’s survivability by 80%. Keep up with our team in our journey to Paris through iGEM Competition 2022! [Wiki](https://2022.igem.wiki/patras-medicine)https://static.igem.org/peertube/streaming-playlists/hls/56d840c6-223f-4761-9427-f91423025e12/853e6be5-05d1-40b1-8b9e-2507b75229d6-master.m3u8https://video.igem.org/videos/embed/bHZoZR1G3fQ61TmDUkAyfE11702012022-09-02T11:04:47.256ZYES2022 Project PromotionsNOhttps://video.igem.org/w/syHj22eP1BQXnqSB95YqPJhttps://video.igem.org/lazy-static/thumbnails/7fb3f6ce-7945-425c-bef3-bbc8203347ed.jpgKEYSTONE: Aromata (2022) - Project Promotion [English]**Title:** Aromata **Description:** Our project Aromata aims to use the mean of synthetic biology to produce a more effective, more eco-friendly, and less irritable deodorant with the unique scent of sandalwood. These characteristics make it highly possible for Aromata to outweigh most of the existing perfumes and chemical deodorants. Aromata utilizes Bacillus subtilis to produce a cyclic-lipopeptide called fengycin, targeting the quorum sensing system of Staphylococcus(the main contributor to body odor). The fengycin produced will compete for the precursor of3M3SH, inhibiting the production of malodor. [Wiki](https://2022.igem.wiki/keystone)https://static.igem.org/peertube/streaming-playlists/hls/d71edd48-c0cc-42a7-94cf-25b9c5b22df0/729ef104-c894-4d7a-9f94-e41adf89fc01-master.m3u8https://video.igem.org/videos/embed/syHj22eP1BQXnqSB95YqPJ1200602022-09-02T11:32:42.154ZYES2022 Project PromotionsNOhttps://video.igem.org/w/iWBqMKxGsFWuzcK4tPVpQNhttps://video.igem.org/lazy-static/thumbnails/7feb5597-366f-40f5-8742-995e0bb479ec.jpgIISER-Pune-India: Hydrazome - A Genetically Engineered Biofertilizer (2022) - Project Promotion [...**Title:** Hydrazome - A Genetically Engineered Biofertilizer **Description:** Waterlogging is the excessive accumulation of water near plant roots. This leads to a decrease in oxygen levels in the soil, which causes harmful bursts of ethylene in the crops and causes them to wither and die. To combat this waterlogging stress in plants, we are genetically modifying Azospirillum to break down ACC, which is the precursor of ethylene, into products which it can use for its own growth. [Wiki](https://2022.igem.wiki/iiser-pune-india)https://static.igem.org/peertube/streaming-playlists/hls/914b5a8c-8454-435a-8157-a4acaf07bca2/b81b6ae3-6047-4a2b-845e-6cf82f0b0ff2-master.m3u8https://video.igem.org/videos/embed/iWBqMKxGsFWuzcK4tPVpQN12003032022-09-02T11:33:10.309ZYES2022 Project PromotionsNOhttps://video.igem.org/w/d2xmh8p32zgJ8wybgUiBUuhttps://video.igem.org/lazy-static/thumbnails/1952f3d2-f323-4d9e-9d25-039081800268.jpgWHU-China: Reach for Light (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Reach for Light **Description:** Depression is a common but serious mood disorder. It causes severe symptoms that affect how you feel, think, and handle daily activities. We, WHU-China use probiotics for production and secretion of a natural antidepressant SAMe. In addition, we’ve designed a completed process which includes oscillator, directed evolution and safety switch to control our little factory perfectly. We plan to make the product into candy so that people in need are more likely to accept it without worrying. [Wiki](https://2022.igem.wiki/whu-china)https://static.igem.org/peertube/streaming-playlists/hls/6164ba42-bad8-4388-9d77-f87bc298b298/a4ac4b33-1763-48ff-89f7-75aa21ef8b89-master.m3u8https://video.igem.org/videos/embed/d2xmh8p32zgJ8wybgUiBUu940832022-09-02T11:42:39.729ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9oHqkMJD6A9df9t3W9tV7jhttps://video.igem.org/lazy-static/thumbnails/e5507afe-61c4-49a5-a483-1541f9b7d6cc.jpgMunich: SpecifiCAR (2022) - Project Promotion [English]**Title:** SpecifiCAR **Description:** We, the iGEM Team Munich, aim to improve CAR T-Cell cancer therapy with our project SpecifiCAR. Despite being remarkably effective, off-tumor toxicity hinders the application of the treatment: targeted antigens are not necessarily unique to the tumor, they are also expressed in healthy tissues, which therefore get attacked too. Our team works on increasing the specificity by introducing quorum sensing as additional prerequisite in order to active CAR T-Cell response. [Wiki](https://2022.igem.wiki/munich)https://static.igem.org/peertube/streaming-playlists/hls/43f4ff7d-0da9-497d-9f7c-58849634405a/c9941c5a-1914-4059-bc5a-ec17b2ad85ac-master.m3u8https://video.igem.org/videos/embed/9oHqkMJD6A9df9t3W9tV7j11803512022-09-02T11:43:04.240ZYES2022 Project PromotionsNOhttps://video.igem.org/w/wZGjx9kP1SykfovvU74UsRhttps://video.igem.org/lazy-static/thumbnails/4e040ae6-d80e-4463-93e7-9b4fafcd138e.jpgCity_of_London_UK: aLFA remask (2022) - Project Promotion [English]**Title:** aLFA remask **Description:** Our project creates a mask that can diagnose tuberculosis in situ. This uses a three-step process of lysis, DNA amplification, and detection. This is all maintained within a single lateral flow architecture that weighs under 5 g and a small enough to fit within the crease of a mask. [Wiki](https://2022.igem.wiki/city-of-london-uk)https://static.igem.org/peertube/streaming-playlists/hls/fb00670c-0f09-40d7-a601-a21b3d33467d/e43e1478-6b89-41be-919b-578146e8de49-master.m3u8https://video.igem.org/videos/embed/wZGjx9kP1SykfovvU74UsR1200382022-09-02T11:56:38.745ZYES2022 Project PromotionsNOhttps://video.igem.org/w/jEoKrHcNLKUfoLTJhvqiLChttps://video.igem.org/lazy-static/thumbnails/05147231-9442-4d28-be8b-3dbe61bb925d.jpgIonis_Paris: StarchLight: a bacterial battery using brewer's spent grain to prod... (2022) - Proj...**Title:** StarchLight: a bacterial battery using brewer's spent grain to produce electricity **Description:** The iGEM IONIS Paris team proudly presents their new innovative project StarchLight. Born from the ambition to find creative solutions to the climate crisis, StarchLight is a bio-sourced microbial fuel cell that uses brewer’s spent grain as a substrate to produce and store electricity using two bacterial strains, a genetically modified Escherichia coli, and Shewanella oneidensis as electricity producer. [Wiki](https://2022.igem.wiki/ionis-paris)https://static.igem.org/peertube/streaming-playlists/hls/9720c75a-60b1-4e73-a86a-2e25703a0010/c4260399-82ac-4657-a991-538893f33a89-master.m3u8https://video.igem.org/videos/embed/jEoKrHcNLKUfoLTJhvqiLC12006372022-09-02T11:59:53.620ZYES2022 Project PromotionsNOhttps://video.igem.org/w/42qJy12JtodwKhnHNQUEVvhttps://video.igem.org/lazy-static/thumbnails/a64e37e8-58f0-4248-bb59-935cacaa3674.jpgAFCM-Egypt: A Phenylketonuria Diagnostic Platform using Aptamers, Whole Cell-Bas... (2022) - Proj...**Title:** A Phenylketonuria Diagnostic Platform using Aptamers, Whole Cell-Based Biosensors and Therapeutic Gene Delivery System. **Description:** Our team is establishing a diagnostic and therapeutic platform for Phenylketonuria (PKU) as a prototype of IEM. The diagnostic approach is based on LFA which provides cost-effective, accurate, and user-friendly chip. The designed LFA depends mainly on two lines; consumption line (AuNPs-conjugated aptamers) and test line (whole-cell biosensor). We introduced a novel SEND platform integrated with CRISPR-regulated gene delivery system which controls the release of PAH as a therapeutic approach. [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/187e6703-ee00-4c24-809e-cc5b2c04e817/954c20c8-85bc-47fa-ac35-5d0523237a90-master.m3u8https://video.igem.org/videos/embed/42qJy12JtodwKhnHNQUEVv11602012022-09-02T12:15:59.100ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1HyDqZ197kTX16kUr9Ubmphttps://video.igem.org/lazy-static/thumbnails/9d148296-5d47-48b5-97e4-720e44236c49.jpgAFCM-Egypt: A Phenylketonuria Diagnostic Platform using Aptamers, Whole Cell-Base... (2022) - Pro...**Title:** A Phenylketonuria Diagnostic Platform using Aptamers, Whole Cell-Based Biosensors and Therapeutic Gene Delivery System. **Description:** Our team is establishing a diagnostic and therapeutic platform for Phenylketonuria (PKU) as a prototype of IEM. The diagnostic approach is based on LFA which provides cost-effective, accurate, and user-friendly chip. The designed LFA depends mainly on two lines; consumption line (AuNPs-conjugated aptamers) and test line (whole-cell biosensor). We introduced a novel SEND platform integrated with CRISPR-regulated gene delivery system which controls the release of PAH as a therapeutic approach. [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/05cd9cec-ad4c-48be-ae3b-a059a296b2c7/0c465504-ae73-425b-b25e-36d200a4767f-master.m3u8https://video.igem.org/videos/embed/1HyDqZ197kTX16kUr9Ubmp1160672022-09-02T12:19:16.540ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4tmqhHfhFZGjPBS1sRpawxhttps://video.igem.org/lazy-static/thumbnails/22a5d5b4-96e2-494e-b63c-991b1f3e2b9a.jpgBilkent_UNAM: MONDES (2022) - Project Promotion [English]**Title:** MONDES **Description:** Our project’s aim is to develop an alternative therapeutic tool for Spinal Muscular Atrophy (SMA). SMA is caused by the deficiency of SMN1 protein and causes many cells to lose functionality, especially neurons, and oftentimes leads to death by causing significant muscle weakness, resulting in respiratory failure, dysphagia, and many other severe health problems. We are using a chimeric protein, a modified version of botulinum neurotoxin (without the toxic domain) in order to deliver the deficient SMN1 protein to the motor neuron cells. [Wiki](https://2022.igem.wiki/bilkent-unam)https://static.igem.org/peertube/streaming-playlists/hls/1c1d14ce-a8cc-436b-badc-74ce2376f717/3a680c6c-a633-4943-912b-2d101b9f0e04-master.m3u8https://video.igem.org/videos/embed/4tmqhHfhFZGjPBS1sRpawx1150122022-09-02T12:23:29.237ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4kJeH8zoxHPeqX52dhfLmhhttps://video.igem.org/lazy-static/thumbnails/a9b3624e-c57e-413f-817d-4d29a32b6978.jpgAFCM-Egypt: A Phenylketonuria Diagnostic Platform using Aptamers, Whole Cell-Base... (2022) - Pro...**Title:** A Phenylketonuria Diagnostic Platform using Aptamers, Whole Cell-Based Biosensors and Therapeutic Gene Delivery System. **Description:** Our team is establishing a diagnostic and therapeutic platform for Phenylketonuria (PKU) as a prototype of IEM. The diagnostic approach is based on LFA which provides cost-effective, accurate, and user-friendly chip. The designed LFA depends mainly on two lines; consumption line (AuNPs-conjugated aptamers) and test line (whole-cell biosensor). We introduced a novel SEND platform integrated with CRISPR-regulated gene delivery system which controls the release of PAH as a therapeutic approach. [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/1b0c93a2-4028-4037-a0f7-f89407e2bcb8/a87648b5-f836-4884-a45e-11e96326fb8f-master.m3u8https://video.igem.org/videos/embed/4kJeH8zoxHPeqX52dhfLmh116012022-09-02T12:25:42.527ZYES2022 Project PromotionsNOhttps://video.igem.org/w/qnKZyVvYzP9oRUhvykJRfehttps://video.igem.org/lazy-static/thumbnails/064fcbd9-082e-4207-945e-6fd9349fdc8d.jpgAFCM-Egypt: A Phenylketonuria Diagnostic Platform using Aptamers, Whole Cell-Base... (2022) - Pro...**Title:** A Phenylketonuria Diagnostic Platform using Aptamers, Whole Cell-Based Biosensors and Therapeutic Gene Delivery System. **Description:** Our team is establishing a diagnostic and therapeutic platform for Phenylketonuria (PKU) as a prototype of IEM. The diagnostic approach is based on LFA which provides cost-effective, accurate, and user-friendly chip. The designed LFA depends mainly on two lines; consumption line (AuNPs-conjugated aptamers) and test line (whole-cell biosensor). We introduced a novel SEND platform integrated with CRISPR-regulated gene delivery system which controls the release of PAH as a therapeutic approach. [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/c5650ef1-ef1f-44c7-82b3-83bca512911d/b0ef2b5b-c23d-4c0f-8858-2072f0952261-master.m3u8https://video.igem.org/videos/embed/qnKZyVvYzP9oRUhvykJRfe1160172022-09-02T12:28:08.662ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9UrxW3XXiTtZwyhFWWf1wXhttps://video.igem.org/lazy-static/thumbnails/9ba2b083-cec0-422c-90fc-e7bde71b7f52.jpgSCU-China: ERYissle (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it contains wrong or mismatched captions. **Title:** ERYissle **Description:** We plan to introduce an exclusive niche that breaks down erythritol and construct an erythritol induction system to increase the competence of the probiotics EcN in the intestinal flora and enhance colonization. By the way, we characterized a rigorous regulatory system based on erythritol precisely. We also synthesize coenzyme pyrroloquinoline and use erythritol as the substrate to produce L-erythrulose, a hypoglycaemic substance, providing multiple healthcare for hypoglycemia and stabilizing intestinal flora only by taking sugar substitutes. [Wiki](https://2022.igem.wiki/scu-china)https://static.igem.org/peertube/streaming-playlists/hls/481b880a-38e1-4038-a46f-fa65c5883a13/738c8613-7b69-451a-a9ed-b65c1ef4a618-master.m3u8https://video.igem.org/videos/embed/9UrxW3XXiTtZwyhFWWf1wX1200212022-09-02T12:34:09.213ZYES2022 Project PromotionsNOhttps://video.igem.org/w/bEJLy8Dx11ZcLVTHiubtS9https://video.igem.org/lazy-static/thumbnails/0565844f-940c-4069-a5d2-09adaf18084e.jpgNJTech_China: Interstellar farmers: Transforming alien soil with parthenogenic a... (2022) - Proj...**Title:** Interstellar farmers: Transforming alien soil with parthenogenic anaerobic engineering bacteria **Description:** In the near future, humans will look to the vastness of the universe for interstellar voyages. Interstellar voyages in the preservation of food and transport a big problem, in order to better provide supplies, set up alien bases on the planets along the route is perhaps the most cost effective way. But the first step to become an "interstellar farmer" is soil transformation, while the human landing after the construction of the base will also be transformed from anaerobic to aerobic surface environment, which requires our engineering bacteria can continue to work for humans in both environments. This year our team used Clostridium tyrobutyricum as an example for aerobic transformation [Wiki](https://2022.igem.wiki/njtech-china)https://static.igem.org/peertube/streaming-playlists/hls/566401b5-f321-48c5-a670-07b211d849d8/8fd0fb8c-beef-493c-8ac2-aa5e65fd9839-master.m3u8https://video.igem.org/videos/embed/bEJLy8Dx11ZcLVTHiubtS91200802022-09-02T12:35:21.018ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4rvnqWVgHiCyDfSQSTu8Wvhttps://video.igem.org/lazy-static/thumbnails/178f49fc-a96f-429e-bdac-4991ae50512e.jpgMIT_MAHE: AMPifin (2022) - Project Promotion [English]**Title:** AMPifin **Description:** This year, our iGEM team aims to find a solution for Vibriosis—a bacterial infection in fishes caused by the Vibrio species. The pisciculture industry contributes notably to our country’s GDP. Under certain stress factors, this infection can aggravate the morbidity. Our project, AMPifin, is an antimicrobial peptide that will inhibit bacterial adhesion to the host cell, by targeting MAM7 present on the bacteria. It is a sustainable alternative to antibiotics that would aid our fishermen in the long run. [Wiki](https://2022.igem.wiki/mit-mahe)https://static.igem.org/peertube/streaming-playlists/hls/1bdb1c1d-0958-43fe-a273-389b964eb125/f38f0f4a-0f98-454e-a2bb-6cfaa853f1bc-master.m3u8https://video.igem.org/videos/embed/4rvnqWVgHiCyDfSQSTu8Wv12001362022-09-02T12:38:24.436ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3ThD98qi3Gg6weG2hrzvRmhttps://video.igem.org/lazy-static/thumbnails/dac53451-b9f8-400c-b1c9-d9921a1806eb.jpgChalmers-Gothenburg: MOD^3 - Modular DNA Detecting Device (2022) - Project Promotion [English]**Title:** MOD^3 - Modular DNA Detecting Device **Description:** iGEM-Chalmers presents MOD^3. A point of care test for fast diagnosis of the neglected tropical disease Schistosomiasis. Schistosomiasis is estimated to cause 200 000 deaths annually, as well as cause considerable economical and health effects on more than 700 million people. Currently, Schistosomiasis is controlled by large-scale treatment of risk groups, increasing the risks of developing drug resistance. With MOD^3 we hope to enable faster and more accurate treatment of infected individuals. [Wiki](https://2022.igem.wiki/chalmers-gothenburg)https://static.igem.org/peertube/streaming-playlists/hls/175b76ed-f274-4707-b489-9e0f602dd73a/db5cd5d2-d950-44c6-959e-0193eb9393bc-master.m3u8https://video.igem.org/videos/embed/3ThD98qi3Gg6weG2hrzvRm1200762022-09-02T12:39:01.320ZYES2022 Project PromotionsNOhttps://video.igem.org/w/dnhCgLWonjBttKwHtRDX5Khttps://video.igem.org/lazy-static/thumbnails/68d32569-5451-4c11-a4cb-c897bc01d781.jpgPatras: PAGGAIA: An innovative approach of Precision Agriculture (2022) - Project Promotion [Engl...**Title:** PAGGAIA: An innovative approach of Precision Agriculture **Description:** The goal of the PAGGAIA project is to make a positive environmental impact by reducing the use of fertilizers and seeking the best possible yield, while modernizing the practice of Agriculture, in an innovative, bio-sustainable and consumer friendly manner. This is accomplished via the creation of a protocol that includes molecular, physicochemical, and agronomical characteristics using soil-sampling drones, portable sequencing and innovative analysis through the lens of Machine Learning. [Wiki](https://2022.igem.wiki/patras)https://static.igem.org/peertube/streaming-playlists/hls/64268762-4cb3-45e8-b1e5-dec945c34bc7/96d250e3-0a17-4b31-9f6f-cdb957ca642f-master.m3u8https://video.igem.org/videos/embed/dnhCgLWonjBttKwHtRDX5K1100672022-09-02T12:41:13.890ZYES2022 Project PromotionsNOhttps://video.igem.org/w/5RdVw26r47HadfwRdneew2https://video.igem.org/lazy-static/thumbnails/5e4fae1b-4287-45af-85fd-0249e5428da8.jpgTU_Braunschweig: Detection of esophageal cancer with a self-amplifying detection... (2022) - Proj...**Title:** Detection of esophageal cancer with a self-amplifying detection system **Description:** For cancer treatment, time is crucial. The treatment should be conducted as early as possible. Especially since some cancer types are recognized at a very late stage. With our video, we want to raise attention to this problem. We want to optimize our generic detection system “Lion Detect” in such a manner, that it theoretically would be capable of being used in a user-friendly rapid test for cancer markers. [Wiki](https://2022.igem.wiki/tu-braunschweig)https://static.igem.org/peertube/streaming-playlists/hls/2743f699-5336-45ee-966e-b0d9c9db1ab9/cbf41c29-6b3a-4402-8ad4-2b19290be4a0-master.m3u8https://video.igem.org/videos/embed/5RdVw26r47HadfwRdneew21190262022-09-02T12:47:34.119ZYES2022 Project PromotionsNOhttps://video.igem.org/w/wpM99FKUaeDQCR8GhpBdYohttps://video.igem.org/lazy-static/thumbnails/55938d48-e26d-47f5-9553-334db63f46b0.jpgBonn-Rheinbach: Cyan Energy (2022) - Project Promotion [English]**Title:** Cyan Energy **Description:** Cyanobacteria has the capability to produce hydrocarbon such as alkane. Which can be used as fuel. Since the biosynthetic hydrocarbon is very similar chemically and structurally than the ones found in fossil fuels, it has the potential to be a replacement. The enzymes aldehyde deformylating oxygenase (ADO) and acyl-ACP reductase (AAR) have been confirmed by researchers to be responsible for catalyzing the production of bio-hydrocarbon in cyanobacteria. In order to optimize the expression of the two enzymes, expressions of other less important enzymes are inhibited. We do this by knocking out genes. Once the modified bacteria produce enough biomass, we can harvest the alkane by centrifuging it. This will let the alkane sink to the bottom and create a pellet. The supernatant can be discarded and pellet can be resuspended in organic solvent. [Wiki](https://2022.igem.wiki/bonn-rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/f64415d8-c9de-43f7-ad3c-68b6ba89d8de/a6b1bc96-611a-4cc0-86c5-fafc030d080f-master.m3u8https://video.igem.org/videos/embed/wpM99FKUaeDQCR8GhpBdYo1200292022-09-02T12:49:18.308ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1UCL6fwiXNjvbV6USMrczVhttps://video.igem.org/lazy-static/thumbnails/5609ff0a-d5be-4710-84b8-ae3191e492e3.jpgTU-Eindhoven: !MPACT a Modular & Personalized Autoimmune Cell Therapy (2022) - Project Promotion ...**Title:** !MPACT a Modular & Personalized Autoimmune Cell Therapy **Description:** Worldwide more than 400 million people suffer from autoimmune diseases. Current treatments of most autoimmune diseases are unspecific, leading to severe side effects and high workloads in hospitals. The iGEM TU Eindhoven team solves this problem by designing !MPACT: a Modular & Personalized Autoimmune Cell Therapy. For now, we start with treating ANCA associated vasculitis. Our goal is to eventually treat all autoimmune diseases in a more personalized manner. [Wiki](https://2022.igem.wiki/tu-eindhoven)https://static.igem.org/peertube/streaming-playlists/hls/0759548e-fb54-4b14-b3c0-18f3bd6701b3/47bae245-c74a-4eed-9be6-2bcec09f81d5-master.m3u8https://video.igem.org/videos/embed/1UCL6fwiXNjvbV6USMrczV115017462022-09-02T12:49:50.929ZYES2022 Project PromotionsNOhttps://video.igem.org/w/jqUoqEEu1Bbs2rpNuwCMDVhttps://video.igem.org/lazy-static/thumbnails/cc05ce02-2b0e-4973-834a-2d9043942913.jpgPatras: PAGGAIA: An innovative approach of Precision Agriculture (2022) - Project Promotion [Greek]**Title:** PAGGAIA: An innovative approach of Precision Agriculture **Description:** The goal of the PAGGAIA project is to make a positive environmental impact by reducing the use of fertilizers and seeking the best possible yield, while modernizing the practice of Agriculture, in an innovative, bio-sustainable and consumer friendly manner. This is accomplished via the creation of a protocol that includes molecular, physicochemical, and agronomical characteristics using soil-sampling drones, portable sequencing and innovative analysis through the lens of Machine Learning. [Wiki](https://2022.igem.wiki/patras)https://static.igem.org/peertube/streaming-playlists/hls/953ea17a-81c1-40a9-8119-598fa8f976eb/7b9209c0-e6ab-4f59-abc0-1367a00e6f5c-master.m3u8https://video.igem.org/videos/embed/jqUoqEEu1Bbs2rpNuwCMDV1100122022-09-02T12:55:10.839ZYES2022 Project PromotionsNOhttps://video.igem.org/w/pRE3JgqQVBVKUHFapfq5mDhttps://video.igem.org/lazy-static/thumbnails/e4a7f553-2b88-41de-ad56-59b3cd878ccf.jpgCornell: MicroMurals (2022) - Project Promotion [English]**Title:** MicroMurals **Description:** Our project centers around creating hydrogel-based microbial bioinks. These colorful "microbial paints" can be used for bioart applications, but also functionalized for environmental applications. This novel bio-based material serves as a learning tool for both art and science outreach. [Wiki](https://2022.igem.wiki/cornell)https://static.igem.org/peertube/streaming-playlists/hls/c13114cb-da26-4db8-9e8d-6d247cecfbfd/25edb7ae-1038-40d9-985b-9ad85328348a-master.m3u8https://video.igem.org/videos/embed/pRE3JgqQVBVKUHFapfq5mD11901652022-09-02T12:56:13.248ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nLjTusEpBd7CMik8D16ws5https://video.igem.org/lazy-static/thumbnails/baf9d502-5cc9-40b4-8ae0-8b6bb951d634.jpgIISER_Bhopal: Stubburn (2022) - Project Promotion [English]**Title:** Stubburn **Description:** No abstract [Wiki](https://2022.igem.wiki/iiser-bhopal)https://static.igem.org/peertube/streaming-playlists/hls/b040471a-173d-4084-a109-36aa38916948/5b7dda96-61be-4d37-84c1-187512fb3d1b-master.m3u8https://video.igem.org/videos/embed/nLjTusEpBd7CMik8D16ws511501152022-09-02T13:04:31.912ZYES2022 Project PromotionsNOhttps://video.igem.org/w/f7Sy9if3GxCKfEHsfGnPFJhttps://video.igem.org/lazy-static/thumbnails/3a75bf17-da3b-4353-8cb9-f489a10bdd88.jpgCambridge: ADAPTR: To Adapt, We Integrate! (2022) - Project Promotion [English]**Title:** ADAPTR: To Adapt, We Integrate! **Description:** After 30 seconds of talking nonsense (for comedic value), the Cambridge iGEM team explains their project which aims to combine control theory and synthetic biology to implement an 'antithetic integral controller' in order to allow cells to adapt to perturbations. This circuit motif will have many applications since all biological systems experience noise; from cell factories to microbial drug delivery systems. We are team ADAPTR: to adapt, we integrate! [Wiki](https://2022.igem.wiki/cambridge)https://static.igem.org/peertube/streaming-playlists/hls/72558f19-c20c-4313-b3c4-3dc143955024/38539d14-7087-4f5c-89e7-38ca855d6e03-master.m3u8https://video.igem.org/videos/embed/f7Sy9if3GxCKfEHsfGnPFJ1200692022-09-02T13:06:25.855ZYES2022 Project PromotionsNOhttps://video.igem.org/w/5xFijFUtgcjQ4hk3LWj7uShttps://video.igem.org/lazy-static/thumbnails/81db4ce7-c4a5-45e2-8661-4866411f11a0.jpgVirginia: AtheroSHuffle - Proactive Atherosclerosis Detection (2022) - Project Promotion [English]**Title:** AtheroSHuffle - Proactive Atherosclerosis Detection **Description:** Atherosclerosis (AS) is a common cardiovascular disease affecting millions in the US and worldwide. However, current detection methods are costly, time-consuming, and not often used. Here, we design a method of early AS detection. This synthetic biology approach provides a quick, accessible, and proactive approach for detection by using SHuffle E. coli and an easily-read test strip. This method is projected to significantly reduce the cost and add dimensions to preexisting detection diagnostics. [Wiki](https://2022.igem.wiki/virginia)https://static.igem.org/peertube/streaming-playlists/hls/24d0d485-f30f-4e73-af15-0e8d2d6f7712/4790cbaf-f647-4378-b358-8a0844ee3b7a-master.m3u8https://video.igem.org/videos/embed/5xFijFUtgcjQ4hk3LWj7uS11401362022-09-02T13:27:40.629ZYES2022 Project PromotionsNOhttps://video.igem.org/w/qughcKXZjkrqowxBco6CRYhttps://video.igem.org/lazy-static/thumbnails/c902bb4b-b781-44a9-8040-c7042494074e.jpgHK_SSC: Biosynthesis of Valerolactam by Synechococcus elongatus UTEX 2973​ (2022) - Project Promo...**Title:** Biosynthesis of Valerolactam by Synechococcus elongatus UTEX 2973​ **Description:** In this video, our team recaps the aim and inspiration of our 2-year project while introducing the new designs added this year. We aim to provide a green alternative to the petrochemical synthesis of valerolactam. The cyanobacterium strain Synechoccocus elongatus UTEX 2973 produces 5AVA with carbon dioxide as a carbon source. The protein 5yss then cyclizes the 5AVA to valerolactam and the protein nphR3 captures the valerolactam. [Wiki](https://2022.igem.wiki/hk-ssc)https://static.igem.org/peertube/streaming-playlists/hls/c64d91d3-cff3-4823-a443-cc9de9bca6aa/b61b9115-45b9-4e9d-be43-4e41d23eb7d1-master.m3u8https://video.igem.org/videos/embed/qughcKXZjkrqowxBco6CRY1180192022-09-02T13:28:24.099ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sVindV8mNL51F6tzjGtaeUhttps://video.igem.org/lazy-static/thumbnails/6d9d4daf-ccc6-4bcc-b869-c5716fb343d5.jpgRochester: Saving Maple Syrup (2022) - Project Promotion [English]**Title:** Saving Maple Syrup **Description:** The maple syrup industry, valued at 1.25 billion dollars, is suffering from a severe lack of scientific advancements. Team Saptasense from the University of Rochester is working to “save maple syrup” by developing a biosensor kit that will help farmers detect a number of sap defects. This will help reduce food waste while preserving time, energy, and profits. [Wiki](https://2022.igem.wiki/rochester)https://static.igem.org/peertube/streaming-playlists/hls/d9feba22-a362-45f9-88ac-05bf0ea3f022/364e9441-8765-40af-affe-ad8f17df6d0b-master.m3u8https://video.igem.org/videos/embed/sVindV8mNL51F6tzjGtaeU12001292022-09-02T13:30:00.287ZYES2022 Project PromotionsNOhttps://video.igem.org/w/t2BsknB2c7FgTK5EYv5XSDhttps://video.igem.org/lazy-static/thumbnails/783ad955-4dd8-4689-a550-78d251124dfd.jpgThessaloniki_Meta: DIAS Diagnostic investigation Accurate system (2022) - Project Promotion [Engl...**Title:** DIAS Diagnostic investigation Accurate system **Description:** This video presents the global problem of the delayed detection of non small cell lung cancer and our project DIAS that comes as a solution . DIAS is an accurate, non invasive , effective and sensitive diagnostic tool for the early detection of non small cell lung cancer. [Wiki](https://2022.igem.wiki/thessaloniki-meta)https://static.igem.org/peertube/streaming-playlists/hls/dae05640-0d81-4ba2-8644-f6069d828125/247b8a3e-025f-4b00-9c65-7ffd1baf62de-master.m3u8https://video.igem.org/videos/embed/t2BsknB2c7FgTK5EYv5XSD12002862022-09-02T13:30:40.843ZYES2022 Project PromotionsNOhttps://video.igem.org/w/vysG4bm9z3xnsqZ9Pt18grhttps://video.igem.org/lazy-static/thumbnails/63e1c56c-5d93-4a72-a267-6a1bde69a72a.jpgGoettingen: From Wastegas to Biofuel (2022) - Project Promotion [English]**Title:** From Wastegas to Biofuel **Description:** The accelerating climate crisis fueled by the extensive combustion of fossil resources threatens the future of our planet and our species. To counteract this development, we developed a bacterial platform that can convert the carbon dioxide containing waste gas "syngas" into the carbon-neutral biofuel Butanol. This is the first platform that combines carbon assimilation and high-yield Biofuel production. [Wiki](https://2022.igem.wiki/goettingen)https://static.igem.org/peertube/streaming-playlists/hls/ef61453b-f910-48ef-99da-61b82d5e290b/8db4b1dd-761e-4aed-a08a-f2a184fe52b2-master.m3u8https://video.igem.org/videos/embed/vysG4bm9z3xnsqZ9Pt18gr1210242022-09-02T13:33:20.237ZYES2022 Project PromotionsNOhttps://video.igem.org/w/uLxgJcqtZuNTo4CmV8R964https://video.igem.org/lazy-static/thumbnails/c486a31e-64f6-4008-8aa3-8e50ec1fe5be.jpgUCopenhagen: Netlantis, The Future of Sustainable Fishing (2022) - Project Promotion [English]**Title:** Netlantis, The Future of Sustainable Fishing **Description:** We are developing a novel biopolymer composite to substitute the currently available nylon fishing nets. We have produced an array of natural proteins using Escherichia coli as a chassis and different combinations of these proteins would be used to form a sustainable fibre. The ultimate goal is to prevent more ghost nets from ending up in the ocean and subsequently reducing the micro plastic pollution of the marine environment. [Wiki](https://2022.igem.wiki/ucopenhagen)https://static.igem.org/peertube/streaming-playlists/hls/e8f7e141-1755-4e32-adea-e37ef1a7737d/ebcb311b-0718-43e9-a451-ac653de327fa-master.m3u8https://video.igem.org/videos/embed/uLxgJcqtZuNTo4CmV8R96411907732022-09-02T13:35:15.021ZYES2022 Project PromotionsNOhttps://video.igem.org/w/h9EX9aRFAWnzjvdeBS9y3Dhttps://video.igem.org/lazy-static/thumbnails/75aa4f48-f421-49e8-83d2-91ad5aa3341f.jpgUniofBath: PhoBac: Creating a Circular Phosphorus Bioeconomy (2022) - Project Promotion [English]**Title:** PhoBac: Creating a Circular Phosphorus Bioeconomy **Description:** Phosphate is essential for all life. As a key plant macronutrient, we mine millions of tonnes to apply to our crops each year. But our supply is finite, threatening a future of volatile, high fertiliser and food prices. While some cannot afford fertiliser, elsewhere nutrient pollution from agricultural runoff chokes rivers and lakes. Our project, PhoBac, aims to solve these dual issues by accumulating excess wastewater phosphate to be recycled onto phosphate deprived crops. [Wiki](https://2022.igem.wiki/uniofbath)https://static.igem.org/peertube/streaming-playlists/hls/82c82c46-14e5-4a7f-a5f2-1f70f7b6a499/ab69b8f6-a68e-478a-a3c4-96b89374590a-master.m3u8https://video.igem.org/videos/embed/h9EX9aRFAWnzjvdeBS9y3D1200352022-09-02T13:49:46.194ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nGSVWjhtN7B4bTxwfvFv2Chttps://video.igem.org/lazy-static/thumbnails/12e98bf9-7f86-4f09-914c-7ea52d62112a.jpgKorea_HS: Data in DNA (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Data in DNA **Description:** Due to the rapid pace of data production nowadays, there is a growing demand for data storage. For the past decades, hard disk drives and solid-state disks have been used to store data. However, considering their limitations, an alternative method has been suggested: storing data in DNA. DNA-based data storage encodes binary data into the four nucleotide bases (adenine, thymine, guanine, and cytosine), and is known to be more cost and space efficient compared to traditional data storage methods. However, DNA, when exposed to stress factors, such as UV radiation or H2O2, is known to deform, thus, cannot be widely applied. Exposure to such stress factors may lead to the loss or alteration of information in DNA. Therefore, a way to secure the data in DNA is critical for the practical implementation of DNA data storage methods. We hypothesized that forming Transcription Factor A Mitochondria (TFAM)-DNA complex in an aqueous solution can contribute to DNA stability during data storage and retrieval. TFAM encapsulates the DNA inside the mitochondria to protect it from various stress factors, and thus, can act as a good stabilizer for DNA. The TFAM-DNA complex was formed with replicated human lung cDNA and purified TFAM protein. This complex was successful in conditions with various stress factors, such as UV and H2O2. This indicates that this TFAM-DNA complex can be a viable method to store data. [Wiki](https://2022.igem.wiki/korea-hs)https://static.igem.org/peertube/streaming-playlists/hls/afc50ca2-32b7-40f4-9eab-b9ad6e535f1a/f088f8ed-2953-4a20-863a-f952fa0559ea-master.m3u8https://video.igem.org/videos/embed/nGSVWjhtN7B4bTxwfvFv2C1200922022-09-02T13:50:29.854ZYES2022 Project PromotionsNOhttps://video.igem.org/w/17yfcCjXxVZzChXCRiCb1dhttps://video.igem.org/lazy-static/thumbnails/0c153aff-7d11-49da-8855-1b2287730068.jpgKorea_HS: Data in DNA (2022) - Project Promotion [Korean]**Warning:** This video does not follow the guidelines, captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Data in DNA **Description:** Due to the rapid pace of data production nowadays, there is a growing demand for data storage. For the past decades, hard disk drives and solid-state disks have been used to store data. However, considering their limitations, an alternative method has been suggested: storing data in DNA. DNA-based data storage encodes binary data into the four nucleotide bases (adenine, thymine, guanine, and cytosine), and is known to be more cost and space efficient compared to traditional data storage methods. However, DNA, when exposed to stress factors, such as UV radiation or H2O2, is known to deform, thus, cannot be widely applied. Exposure to such stress factors may lead to the loss or alteration of information in DNA. Therefore, a way to secure the data in DNA is critical for the practical implementation of DNA data storage methods. We hypothesized that forming Transcription Factor A Mitochondria (TFAM)-DNA complex in an aqueous solution can contribute to DNA stability during data storage and retrieval. TFAM encapsulates the DNA inside the mitochondria to protect it from various stress factors, and thus, can act as a good stabilizer for DNA. The TFAM-DNA complex was formed with replicated human lung cDNA and purified TFAM protein. This complex was successful in conditions with various stress factors, such as UV and H2O2. This indicates that this TFAM-DNA complex can be a viable method to store data. [Wiki](https://2022.igem.wiki/korea-hs)https://static.igem.org/peertube/streaming-playlists/hls/00ea558e-841a-49c9-a2f1-c80a75392944/50922a1d-7ead-4f01-b86f-50dab1ecd5bf-master.m3u8https://video.igem.org/videos/embed/17yfcCjXxVZzChXCRiCb1d1200152022-09-02T13:51:24.759ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2D1caXqHJnJCqvPGEog8E5https://video.igem.org/lazy-static/thumbnails/025d804f-db69-4fb6-a44f-016d3af5a513.jpgKorea_HS: Data in DNA (2022) - Project Promotion [Spanish]**Warning:** This video does not follow the guidelines, captions should only be uploaded as a separate file, and not integrated onto the video itself. **Title:** Data in DNA **Description:** Due to the rapid pace of data production nowadays, there is a growing demand for data storage. For the past decades, hard disk drives and solid-state disks have been used to store data. However, considering their limitations, an alternative method has been suggested: storing data in DNA. DNA-based data storage encodes binary data into the four nucleotide bases (adenine, thymine, guanine, and cytosine), and is known to be more cost and space efficient compared to traditional data storage methods. However, DNA, when exposed to stress factors, such as UV radiation or H2O2, is known to deform, thus, cannot be widely applied. Exposure to such stress factors may lead to the loss or alteration of information in DNA. Therefore, a way to secure the data in DNA is critical for the practical implementation of DNA data storage methods. We hypothesized that forming Transcription Factor A Mitochondria (TFAM)-DNA complex in an aqueous solution can contribute to DNA stability during data storage and retrieval. TFAM encapsulates the DNA inside the mitochondria to protect it from various stress factors, and thus, can act as a good stabilizer for DNA. The TFAM-DNA complex was formed with replicated human lung cDNA and purified TFAM protein. This complex was successful in conditions with various stress factors, such as UV and H2O2. This indicates that this TFAM-DNA complex can be a viable method to store data. [Wiki](https://2022.igem.wiki/korea-hs)https://static.igem.org/peertube/streaming-playlists/hls/0d43c6df-d608-44e3-9c3e-d3c0a2c44694/2b20dd9f-39d1-4058-bcbb-9803afd12c86-master.m3u8https://video.igem.org/videos/embed/2D1caXqHJnJCqvPGEog8E5120012022-09-02T13:56:04.548ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8woueu1LqP1YLYdMy6pvGthttps://video.igem.org/lazy-static/thumbnails/10f3f319-e372-47a2-831a-0b908016f667.jpgFreiburg: Enter the chAMBER, a place full of revelations! (2022) - Project Promotion [English]**Title:** Enter the chAMBER, a place full of revelations! **Description:** Did you know that bacteria, despite their small size, possess a fine internal organization? Explore our project and learn how we got inspired by nature and went beyond to create a toolbox for compartmentalization that can be applied in future synthetic biology applications. [Wiki](https://2022.igem.wiki/freiburg)https://static.igem.org/peertube/streaming-playlists/hls/3cee2445-49a1-42db-9469-398874cccc67/08c2073e-9130-4feb-84e5-5bcf543ed755-master.m3u8https://video.igem.org/videos/embed/8woueu1LqP1YLYdMy6pvGt11803672022-09-02T13:57:04.319ZYES2022 Project PromotionsNOhttps://video.igem.org/w/trZdkNeP2XzJA6FbAWaeSmhttps://video.igem.org/lazy-static/thumbnails/8ac7a980-4671-4a4a-9619-ef1ec678d442.jpgAalto-Helsinki: Q Block: Preventing biofilms by blocking the bacterial signaling (2022) - Project...**Title:** Q Block: Preventing biofilms by blocking the bacterial signaling **Description:** In this video, we showcase some of the Aalto-Helsinki team's work done at Meilahti Hospital Area and our Aalto University lab. Through clinician interviews and elegant animation, we introduce the challenges that biofilm-infected chronic wounds pose for patients, physicians and health systems. Our solution, Q-Block, is designed to prevent such biofilm buildup. This is achieved, as explained, via small proteins called DARPins that bind to and inhibit bacterial signalling molecules. [Wiki](https://2022.igem.wiki/aalto-helsinki)https://static.igem.org/peertube/streaming-playlists/hls/de4798c1-45dd-471e-8293-f15253c35344/308c4b93-ae2d-4124-b407-7b2e34f85b47-master.m3u8https://video.igem.org/videos/embed/trZdkNeP2XzJA6FbAWaeSm12002162022-09-02T13:56:37.600ZYES2022 Project PromotionsNOhttps://video.igem.org/w/cyM7KLyEPA4MQAJRi12g9khttps://video.igem.org/lazy-static/thumbnails/df531954-af90-4ff8-8347-daa3ac415f91.jpgGA_State_SW_Jiaotong: Synkhlorum (2022) - Project Promotion [English]**Title:** Synkhlorum **Description:** Located in the heart of Atlanta, USA, and Chengdu, China, our teams are working together to address the global concern surrounding global warming. This year we are creating a co-culture between microalgae, Chlorella minutissima, and E. coli. The co-culture aims to maximize the lipid production pathway in the algae. The lipid products obtained from this co-culture can later be converted into biofuels more cost-effectively. We are looking to reduce the current fuel production methods through this solution [Wiki](https://2022.igem.wiki/ga-state-sw-jiaotong)https://static.igem.org/peertube/streaming-playlists/hls/5da82141-7f95-4cb7-a0b9-fa02faad2a07/7ed72a56-a1df-4a29-a1b0-56b13780fd7e-master.m3u8https://video.igem.org/videos/embed/cyM7KLyEPA4MQAJRi12g9k1180142022-09-02T14:01:41.304ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3DnxbDvUAqNKzeiLFTuEtQhttps://video.igem.org/lazy-static/thumbnails/5a92ca1b-4457-4b90-aa0a-bd2d1f0cfc1d.jpgIISc-Bengaluru: Halocleen! (2022) - Project Promotion [English]**Title:** Halocleen! **Description:** Refrigerants are indispensable: they find use in daily appliances, transport, storage, and industries. Contrary to their role, halocarbons, the most common refrigerants, are one of the leading causes of Global Warming, as well as Ozone Depletion. While we are moving towards greener cooling technologies, the legacy of halocarbons remains. At iGEM IISc, we are working on a sustainable way to degrade these coolants before they leak and poison the environment. [Wiki](https://2022.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/156a11e2-254b-4034-83c9-10afdf39c416/36a36ce5-b2e1-4f94-9902-ac21009d93fe-master.m3u8https://video.igem.org/videos/embed/3DnxbDvUAqNKzeiLFTuEtQ12002732022-09-02T14:11:59.067ZYES2022 Project PromotionsNOhttps://video.igem.org/w/eafJCemtswpt3XiSmqgkZPhttps://video.igem.org/lazy-static/thumbnails/5419f0ea-12e7-4a46-9614-37e2a3fcdf45.jpgWaterloo: Pinene Express (2022) - Project Promotion [English]**Title:** Pinene Express **Description:** The Canadian government legalized recreational cannabis use in 2018 and since then, both demand and the industry have grown at unimaginable rates. Unfortunately, cultivating and processing cannabis is an unsustainable and resource-intensive process. Pinene Express makes use of bioengineered yeast to produce the main compounds found in the cannabis plant as a more efficient and greener alternative to cultivation. [Wiki](https://2022.igem.wiki/waterloo)https://static.igem.org/peertube/streaming-playlists/hls/6a9193c4-a84c-4e0e-9578-2880eb47331d/dfc476cf-06aa-4c78-acc1-00385dfe3fbb-master.m3u8https://video.igem.org/videos/embed/eafJCemtswpt3XiSmqgkZP1190742022-09-02T14:17:09.154ZYES2022 Project PromotionsNOhttps://video.igem.org/w/iJNLonrVZbWCxqQfNwF1Xhhttps://video.igem.org/lazy-static/thumbnails/56419e34-b4cc-4cb4-bc3e-934de223e9da.jpgIISc-Bengaluru: Halocleen! (2022) - Project Promotion [Bengali]**Title:** Halocleen! **Description:** Refrigerants are indispensable: they find use in daily appliances, transport, storage, and industries. Contrary to their role, halocarbons, the most common refrigerants, are one of the leading causes of Global Warming, as well as Ozone Depletion. While we are moving towards greener cooling technologies, the legacy of halocarbons remains. At iGEM IISc, we are working on a sustainable way to degrade these coolants before they leak and poison the environment. [Wiki](https://2022.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/8fa56a6a-1dfb-405a-b574-fa5db14b80be/dec6d363-12d2-42be-8824-ef28d864803b-master.m3u8https://video.igem.org/videos/embed/iJNLonrVZbWCxqQfNwF1Xh120042022-09-02T14:18:57.172ZYES2022 Project PromotionsNOhttps://video.igem.org/w/n8wuCFGJSMup7tKw6SqP7whttps://video.igem.org/lazy-static/thumbnails/8f90c0ee-a688-45f5-bed3-6999ff5b0f38.jpgIISc-Bengaluru: Halocleen! (2022) - Project Promotion [Hindi]**Title:** Halocleen! **Description:** Refrigerants are indispensable: they find use in daily appliances, transport, storage, and industries. Contrary to their role, halocarbons, the most common refrigerants, are one of the leading causes of Global Warming, as well as Ozone Depletion. While we are moving towards greener cooling technologies, the legacy of halocarbons remains. At iGEM IISc, we are working on a sustainable way to degrade these coolants before they leak and poison the environment. [Wiki](https://2022.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/ab1ce91f-8d73-4d5b-9383-964f03ab5a16/74a4228f-aa92-4f3a-8af8-b4565748369b-master.m3u8https://video.igem.org/videos/embed/n8wuCFGJSMup7tKw6SqP7w1200292022-09-02T14:19:20.004ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3fmZT1gn48wiBz9Hrs3EtRhttps://video.igem.org/lazy-static/thumbnails/6ddf8d8f-4fe7-4946-bf57-3287f122b813.jpgIISc-Bengaluru: Halocleen! (2022) - Project Promotion [Kannada]**Title:** Halocleen! **Description:** Refrigerants are indispensable: they find use in daily appliances, transport, storage, and industries. Contrary to their role, halocarbons, the most common refrigerants, are one of the leading causes of Global Warming, as well as Ozone Depletion. While we are moving towards greener cooling technologies, the legacy of halocarbons remains. At iGEM IISc, we are working on a sustainable way to degrade these coolants before they leak and poison the environment. [Wiki](https://2022.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/1233a16a-4ced-42b1-ae61-5023eacc4577/96dc553d-898a-42d6-b968-e1c00d63ed8c-master.m3u8https://video.igem.org/videos/embed/3fmZT1gn48wiBz9Hrs3EtR1200182022-09-02T14:22:49.192ZYES2022 Project PromotionsNOhttps://video.igem.org/w/w577KdcNAoPYmcRESb9Pkchttps://video.igem.org/lazy-static/thumbnails/5b07be21-f79a-4bbf-b99f-fc09d87f936b.jpgIISc-Bengaluru: Halocleen! (2022) - Project Promotion [Marathi]**Title:** Halocleen! **Description:** Refrigerants are indispensable: they find use in daily appliances, transport, storage, and industries. Contrary to their role, halocarbons, the most common refrigerants, are one of the leading causes of Global Warming, as well as Ozone Depletion. While we are moving towards greener cooling technologies, the legacy of halocarbons remains. At iGEM IISc, we are working on a sustainable way to degrade these coolants before they leak and poison the environment. [Wiki](https://2022.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/f384e778-4b6e-41ab-9302-155410021615/7ab4b189-68cc-4048-9731-6e645ad66256-master.m3u8https://video.igem.org/videos/embed/w577KdcNAoPYmcRESb9Pkc1200102022-09-02T14:24:35.251ZYES2022 Project PromotionsNOhttps://video.igem.org/w/aiaspoFes843tgWfHpc7fzhttps://video.igem.org/lazy-static/thumbnails/a65502dd-c3a5-451a-84d1-9388b924529a.jpgUPenn: Photocrete (2022) - Project Promotion [English]**Title:** Photocrete **Description:** Cell-cell communication is a fundamental process, impacting both cell behavior and disease. Current research methods such as genetic and protein circuits lack the crucial spatiotemporal precision needed. Photocrete uses optogenetics to overcome these limitations to build a modular, light-inducible secretion system. [Wiki](https://2022.igem.wiki/upenn)https://static.igem.org/peertube/streaming-playlists/hls/4b47b811-d213-4bde-b0ff-b91cb441c06d/7bca184b-1c86-40ce-85a9-6b6cf214f8bc-master.m3u8https://video.igem.org/videos/embed/aiaspoFes843tgWfHpc7fz1200752022-09-02T14:28:20.073ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mERh2g7H2RtnDeNKmpyHGThttps://video.igem.org/lazy-static/thumbnails/27fd5772-03a2-43f9-b84b-82fa9cb2d674.jpgELTE: NanoBlade (2022) - Project Promotion [English]**Title:** NanoBlade **Description:** We are Team ELTE, and we have created NanoBlade, which could facilitate both tumor diagnostics and therapy! We engineered E. coli to selectively attach to cancer cells and colonize tumor tissues. These interactions are detectable via fluorescence, so with the help of the bacteria, tumors can be visualized. Under blue light, our bacteria release toxins into their environment, killing cancer cells locally. [Wiki](https://2022.igem.wiki/elte)https://static.igem.org/peertube/streaming-playlists/hls/a763676d-d594-4e55-ade8-8704426da0b7/ad347ad6-e663-4bcb-a6ef-e6dc1cb2a27a-master.m3u8https://video.igem.org/videos/embed/mERh2g7H2RtnDeNKmpyHGT960882022-09-02T14:32:19.072ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kKw6fitZ6yGSRMcSusSieQhttps://video.igem.org/lazy-static/thumbnails/b907853c-b580-422d-8283-18a6a3f2a712.jpgCCA_San_Diego: Schistosomiasis: Novel Prevention of Parasitic Diseases (2022) - Project Promotion...**Title:** Schistosomiasis: Novel Prevention of Parasitic Diseases **Description:** Schistosomiasis is a waterborne parasitic disease in third world countries, affecting 230 million people per year. Because current treatment methods are not widely accessible, we want to prevent schistosomiasis cases altogether. SchistoGONE uses genetically engineering yeast to produce a natural compound, which will be placed on plates near the shores of infected bodies of water. The snails, upon eating the yeast, will be cured of parasites when the yeast releases the natural compound. [Wiki](https://2022.igem.wiki/cca-san-diego)https://static.igem.org/peertube/streaming-playlists/hls/9ff1291a-095e-465b-a09b-492b3688ca76/601008f9-3106-40a3-95ad-e1322e4f8019-master.m3u8https://video.igem.org/videos/embed/kKw6fitZ6yGSRMcSusSieQ1190802022-09-02T14:32:50.983ZYES2022 Project PromotionsNOhttps://video.igem.org/w/rm9RdtcjCubdGxe9sg6xQshttps://video.igem.org/lazy-static/thumbnails/e1f3ca1d-5f9c-4cdf-a277-2dc6c2a1e47e.jpgLINKS_China: UV_Prisma (2022) - Project Promotion [English]**Title:** UV_Prisma **Description:** We, LINKS_China, designed genetically engineered yeast to produce MAAs, one of the best UV-absorbing molecules found in nature, along with repairing enzymes for sunburn cure. Please enjoy our promotion video! [Wiki](https://2022.igem.wiki/links-china)https://static.igem.org/peertube/streaming-playlists/hls/cd44cb85-4b2b-4129-b555-fc21ae6f04ce/50b61162-a2e3-46f9-a1cf-9c97065e9c70-master.m3u8https://video.igem.org/videos/embed/rm9RdtcjCubdGxe9sg6xQs11901742022-09-02T14:36:38.066ZYES2022 Project PromotionsNOhttps://video.igem.org/w/jGXDq68gyBmDPQUmfjpooahttps://video.igem.org/lazy-static/thumbnails/32d254c6-b73a-4b90-bf19-dbf10b5d0eb1.jpgEPFL: HESTIA - Reimagining Sustainable Insulation through Synthetic Biology (2022) - Project Prom...**Title:** HESTIA - Reimagining Sustainable Insulation through Synthetic Biology **Description:** With the climate crisis, energy is now a limited resource. It is therefore no longer ecologically or economically sustainable to employ building insulation materials that are inefficient and whose end-of-life disposal adds yet another environmental burden. iGEM EPFL is addressing this issue with project HESTIA: a synthetic biology-based, modular, high performance insulation material, which aims to save energy now and reduce the environmental impact of insulation waste in the future. [Wiki](https://2022.igem.wiki/epfl)https://static.igem.org/peertube/streaming-playlists/hls/977c8a08-178b-49d4-929c-e695df8a3295/12fb7946-19b5-4214-a230-9167a98adfad-master.m3u8https://video.igem.org/videos/embed/jGXDq68gyBmDPQUmfjpooa12002642022-09-02T14:47:46.289ZYES2022 Project PromotionsNOhttps://video.igem.org/w/t7nFrBFg4gPfajKzuhPCrFhttps://video.igem.org/lazy-static/thumbnails/c7f3f079-557d-42df-bce3-2cae31a125a3.jpgDKU_China: A New Way to Detect Water Pollution (2022) - Project Promotion [English]**Title:** A New Way to Detect Water Pollution **Description:** Water pollution is a major threat to public health which also impacts life nowadays. We aim to combat this problem with synthetic biology, by creating a new kind of genetically modified E. coli with advanced technological tools such as high-throughput experimentation. In the process, BioBricks will be created and improved, alongside many other products related to our project. We hope that our efforts could guide the procedure of further research on this topic. [Wiki](https://2022.igem.wiki/dku-china)https://static.igem.org/peertube/streaming-playlists/hls/db8a9136-1b46-4b1a-888b-c66cfbd40879/a899bd15-ecc2-402b-99b1-1e9b9f23f937-master.m3u8https://video.igem.org/videos/embed/t7nFrBFg4gPfajKzuhPCrF12001252022-09-02T14:49:07.851ZYES2022 Project PromotionsNOhttps://video.igem.org/w/pAQrcnSGjHzBowYLHZ4iH2https://video.igem.org/lazy-static/thumbnails/8bf6b3c7-c876-4788-9ed0-513ad32823c3.jpgBJEA_China: A Popular Deteriorated Cheese——BslA (2022) - Project Promotion [English]**Title:** A Popular Deteriorated Cheese——BslA **Description:** I’m BslA, a hydrophobin. I can form fusion protein with LL37 to enlarge the range of pathogens. Also, I can form fusion protein with mPETase and enhance the efficiency of PET hydrolysis. Besides, I can form fusion protein with EGFP to help it easily be purified. [Wiki](https://2022.igem.wiki/bjea-china)https://static.igem.org/peertube/streaming-playlists/hls/bf1f537d-3880-48b4-a2e7-18f7810d9357/8bae1932-d9b6-4284-a26e-fe74110fd1e1-master.m3u8https://video.igem.org/videos/embed/pAQrcnSGjHzBowYLHZ4iH21100272022-09-02T14:57:08.268ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4AH1kMmauvCzjaBE4xvgLVhttps://video.igem.org/lazy-static/thumbnails/103fa107-48fa-4312-aea6-580c87c2d795.jpgUZurich: IBD NanoBiotics: The Probiotic Gut Force (2022) - Project Promotion [English]**Title:** IBD NanoBiotics: The Probiotic Gut Force **Description:** We want to lay the foundations for a novel treatment option with higher specificity for inflammatory bowel disease. The engineered bacteria are equipped with a nitric oxide sensor that triggers the production and secretion of nanobodies directed against the cytokine TNF-alpha. Equally important for our project are outreach and education. Through a two-dimensional model of the gut, we also simulate artificial inflammation sites and their interaction with the produced nanobodies. [Wiki](https://2022.igem.wiki/uzurich)https://static.igem.org/peertube/streaming-playlists/hls/1d23f995-1f61-45af-8cbf-95e9883849a1/e8ede19b-f83d-44f8-a5a0-887d1510aa67-master.m3u8https://video.igem.org/videos/embed/4AH1kMmauvCzjaBE4xvgLV12001772022-09-02T14:58:51.625ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tbUni1xBPnbb2AivTEkUJPhttps://video.igem.org/lazy-static/thumbnails/7febb698-5bf9-46bf-b0de-152927a8204b.jpgTAU_Israel: TrigGate (2022) - Project Promotion [English]**Title:** TrigGate **Description:** Our team is developing a user-friendly software that will ease the struggle of creating selectively translated mRNAs for any use – both research and therapeutics. This will be made possible by a sophisticated AI algorithm that finds the optimal RNA trigger in a given cell type and optimizes the switch module sequence accordingly. The algorithm is backed by data gathered from the literature as well as data generated by us in the lab for testing and verification. Wiki link: https://2022.igem.wiki/tau-israel/ Credits - Animation: Shahar Galor Narrator: Rob from Audio ID Consult and English help: Yuval Reiss Producer: Tal Tzfoni Script: Team TAU Israel Script consultants: Tamir Tuller and Matan Arbel [Wiki](https://2022.igem.wiki/tau-israel)https://static.igem.org/peertube/streaming-playlists/hls/dc2c7433-4505-4265-ab53-32c3bd4f10fb/9365fbc6-8dab-4953-bc30-286413bcb4d2-master.m3u8https://video.igem.org/videos/embed/tbUni1xBPnbb2AivTEkUJP12002162022-09-02T15:00:47.078ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xBbQE64997Pt4TMSmzbB37https://video.igem.org/lazy-static/thumbnails/9555842e-d894-47e7-acb5-9478f5f6e5a9.jpgLatvia-Riga: Crocin biosynthesis in the unconventional yeast Rhodotorula toruloides (2022) - Proj...**Title:** Crocin biosynthesis in the unconventional yeast Rhodotorula toruloides **Description:** Crocin is a carotenoid compound primarily responsible for the color of saffron. It has been shown to exhibit antioxidant, neuroprotective agent, and antiproliferative properties in cancer cells in vitro. The plant saffron requires specific climate conditions to grow and thrive. The yield of crocin via extraction from saffron is rather low and the process is costly and labor consuming. So, the team is determined to biosynthesize crocin from unconventional yeast Rhodotorula toruloides. [Wiki](https://2022.igem.wiki/latvia-riga)https://static.igem.org/peertube/streaming-playlists/hls/fff50297-7f49-4cf0-81b2-8f9644cb8786/8ad6bdcd-ae0b-4bdd-be2b-653303af769c-master.m3u8https://video.igem.org/videos/embed/xBbQE64997Pt4TMSmzbB3712001132022-09-02T15:10:49.847ZYES2022 Project PromotionsNOhttps://video.igem.org/w/5bqGB4e2qzTLTbVfBWAU6Thttps://video.igem.org/lazy-static/thumbnails/e1673f35-8bc4-4ca3-9f4f-5f15fa1ff950.jpgAnatolia_College_HS: Nitrate Filter for Eutrophication (2022) - Project Promotion [English]**Title:** Nitrate Filter for Eutrophication **Description:** We are iGEM Skepsis from Anatolia College and our project addresses eutrophication. Eutrophication is caused by microorganisms on water bodies thriving on excess nitrate levels. These nitrates can make their way into water bodies due to fertilizer use in agriculture or industrial activity. This creates an unpleasant smell and look, while also blocking sunlight to marine life inside the water, killing plants and leading to the destruction of marine life. The foul smell can drive away tourists, which can devastate small businesses that rely on seasonal income. This is why we are designing a filter to convert the nitrates into an indigestible form of nitrogen that can’t be utilized by these microbes, stopping eutrophication at its tracks. [Wiki](https://2022.igem.wiki/anatolia-college-hs)https://static.igem.org/peertube/streaming-playlists/hls/21d936dc-8969-45f4-a7df-219e8d39b035/8a392f37-9d0a-4783-8ad0-d1ef58e9808d-master.m3u8https://video.igem.org/videos/embed/5bqGB4e2qzTLTbVfBWAU6T10201972022-09-02T15:14:44.487ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4hmBmr8cXTKxAd24sNxUCxhttps://video.igem.org/lazy-static/thumbnails/b6919817-452d-44eb-8182-e9aa70ce9ce9.jpgNCSU: Forget-Me-Not (2022) - Project Promotion [English]**Title:** Forget-Me-Not **Description:** Our project is titled Forget-Me-Not and centers around Alzheimer’s Disease. The promotion video highlights our efforts in the dry lab, wet lab and human practices. [Wiki](https://2022.igem.wiki/ncsu)https://static.igem.org/peertube/streaming-playlists/hls/1a940472-51fc-4673-a2bc-93f85e61cacf/68c375ea-24c7-4fa6-9230-dd4e237ea26e-master.m3u8https://video.igem.org/videos/embed/4hmBmr8cXTKxAd24sNxUCx750122022-09-02T15:15:49.466ZYES2022 Project PromotionsNOhttps://video.igem.org/w/oiwugoR78UBaqRoDV6wD8Phttps://video.igem.org/lazy-static/thumbnails/ac339e56-4c58-4b15-8259-7349ea6e0de9.jpgFDR-HB_Peru: Chococadmium: Detection and Bioremediation of Cadmium in the Peruvi... (2022) - Proj...**Title:** Chococadmium: Detection and Bioremediation of Cadmium in the Peruvian Cacao Industry **Description:** New European Union regulations regarding heavy metal concentration have limited the distribution of Peruvian cacao, resulting in an income loss for the industry. Our iGEM team, along with Alianza Cacao, is working on a Cadmium detection sensor and further on, a bioremediation system to block Cadmium absorption from contaminated soil in cacao plantations. We hope to provide a system that results in Cacao products with lower cadmium concentration. [Wiki](https://2022.igem.wiki/fdr-hb-peru)https://static.igem.org/peertube/streaming-playlists/hls/b49b7bac-4448-4bd0-bd6d-b81e2e4cff59/ffaaf5e0-9d17-43f5-9543-5a0e618dbdc3-master.m3u8https://video.igem.org/videos/embed/oiwugoR78UBaqRoDV6wD8P1200592022-09-02T15:17:44.226ZYES2022 Project PromotionsNOhttps://video.igem.org/w/6Tx1vC6iKbhwGSPz1bjocuhttps://video.igem.org/lazy-static/thumbnails/a9c7c17d-e3a0-49c4-a165-eaad557cc86a.jpgUnicamp_Brazil: Cellulopolis (2022) - Project Promotion [English]**Title:** Cellulopolis **Description:** The video begins with a brief explanation of the traditional use of Komagataeibater in the preparation of Kombucha, followed by the introduction of other biotechnological applications. Komagataeibacter are natural producers of pure cellulose, which can have biomedical uses, including treatment of injuries or development of artificial organs. Team Unicamp_Brazil aims to create tools to regulate the metabolism of never previously edited Komagataeibacter strains, improving de cellulose production with reduced costs. [Wiki](https://2022.igem.wiki/unicamp-brazil)https://static.igem.org/peertube/streaming-playlists/hls/2fafbc44-d70b-490a-8be6-ecdbfb1732e2/6c437d9b-cae6-40b3-be18-0a200f12a749-master.m3u8https://video.igem.org/videos/embed/6Tx1vC6iKbhwGSPz1bjocu1200312022-09-02T15:18:24.909ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1TroNcAwoaAM2BrGtSFSh8https://video.igem.org/lazy-static/thumbnails/16f7d069-fef8-413a-adda-4fdbc79d38fa.jpgUCL: Biocrafter: Construction is in our DNA (2022) - Project Promotion [English]**Title:** Biocrafter: Construction is in our DNA **Description:** UCL iGEM 2022 team chose to tackle the problem of carbon emissions from the construction industry. Concrete, one of the most used and versatile materials worldwide has a dirty little secret, it is responsible for over 8% of all global greenhouse emissions. The Bacillus subtilis can be modified to express two complementary biomineralisation enzymes, urease and carbonic anhydrase, and hence turn CO2 and urea into calcium carbonate. By substituting a key component of concrete, the cement, with the bacterial alternative, it is possible to create a novel carbon negative biomaterial. [Wiki](https://2022.igem.wiki/ucl)https://static.igem.org/peertube/streaming-playlists/hls/072e94cf-611c-43ad-8491-1c08bf803747/b4a10d18-86ca-4d67-8211-a9f54ad6b2b8-master.m3u8https://video.igem.org/videos/embed/1TroNcAwoaAM2BrGtSFSh81170652022-09-02T15:19:48.288ZYES2022 Project PromotionsNOhttps://video.igem.org/w/6dWLU4T3xHtWgsSbahJjDdhttps://video.igem.org/lazy-static/thumbnails/ac2df604-5a26-47b9-967a-2acd039d234d.jpgEdinburgh-UHAS_Ghana: PETALUTION (2022) - Project Promotion [English]**Title:** PETALUTION **Description:** Heavy metal pollution and microplastic pollution in water are large issues around the world. The global people are facing a large water crisis, as our finite sources of clean water are evermore scarce. Agriculture, fuel spillages, deforestation, and littering, to name a few, are jeopardizing our water and life. In Ghana, most rural areas have problems getting access to clean water due to activities such as illegal mining that impose threats on their water body and soil. The large plastic input also causes severe plastic exposure. The plastic will end up breaking down into microplastic. It will accumulate into the food chain, and impose health conditions on the local community and other surrounding lives. This time, our team Edinburgh-UHAS_Ghana designs a project that focuses on the heavy metal and microplastic pollution in the Birim river in Ghana and tries to solve the pollution through a holistic approach. Our product PETALUTION employs cell-free systems for implementing synthetic biology. PETALUTION contain three parts, biosensors that can detect the existence of heavy metal in the water, a bioremediation device for heavy metal sequestration through metallothionein-mediated binding, and an enzyme cocktail for PET biodegradation into potential sources of commercially valuable materials. Through these methods, we are trying to reframe pollutants as assets instead of burdens. Water pollution is an issue of global concern. PETALUTION can be a sustainable solution to global water pollution. [Wiki](https://2022.igem.wiki/edinburgh-uhas-ghana)https://static.igem.org/peertube/streaming-playlists/hls/2a4c5fd0-a532-4189-a7d0-e367b228bea6/4948794b-cc90-4ec2-9c18-a5bcab990135-master.m3u8https://video.igem.org/videos/embed/6dWLU4T3xHtWgsSbahJjDd11301542022-09-02T15:20:16.089ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tzGcEC4AEDXogNReQCfkV3https://video.igem.org/lazy-static/thumbnails/f014b1ff-4642-4b26-a70a-f0cdddb5ce7b.jpgUnicamp_Brazil: Cellulopolis (2022) - Project Promotion [Portuguese]**Title:** Cellulopolis **Description:** The video begins with a brief explanation of the traditional use of Komagataeibater in the preparation of Kombucha, followed by the introduction of other biotechnological applications. Komagataeibacter are natural producers of pure cellulose, which can have biomedical uses, including treatment of injuries or development of artificial organs. Team Unicamp_Brazil aims to create tools to regulate the metabolism of never previously edited Komagataeibacter strains, improving de cellulose production with reduced costs. [Wiki](https://2022.igem.wiki/unicamp-brazil)https://static.igem.org/peertube/streaming-playlists/hls/df5b1024-b482-4804-bf97-36c4e7ae7fe0/6b41e7ca-de9e-4dea-976a-dde84bad8940-master.m3u8https://video.igem.org/videos/embed/tzGcEC4AEDXogNReQCfkV3119022022-09-02T15:21:22.752ZYES2022 Project PromotionsNOhttps://video.igem.org/w/qbTortmZMrQ2tJsPZX4xHXhttps://video.igem.org/lazy-static/thumbnails/0b458716-399b-486b-ab4a-bc437bec21ea.jpgTokyoTech: Dengnosis (Tokyo Tech) (2022) - Project Promotion [English]**Title:** Dengnosis (Tokyo Tech) **Description:** Dengue fever is a mosquito-borne infectious disease with four serotypes, and because infection with different serotypes causes severe illness, no effective vaccine has been developed. Therefore, we will create a cell-based detection system and a device to detect the serotypes. Based on the results, we will predict the serotypes that will be prevalent. We propose a project that will ultimately contribute to the creation of a vaccine. [Wiki](https://2022.igem.wiki/tokyotech)https://static.igem.org/peertube/streaming-playlists/hls/c3e06f0f-8e07-4911-a033-eb3c0c806125/2dedb770-d934-41b3-b49b-a135d2d8ba9f-master.m3u8https://video.igem.org/videos/embed/qbTortmZMrQ2tJsPZX4xHX1200832022-09-02T15:22:47.575ZYES2022 Project PromotionsNOhttps://video.igem.org/w/93Mv7f3PHmFFj8r42Dwk1zhttps://video.igem.org/lazy-static/thumbnails/dbaab5f7-426f-459a-a660-3d598a570c66.jpgICT-Mumbai: Optimizing Gene Expression (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it has no captions. **Title:** Optimizing Gene Expression **Description:** From the slaughtering of cattle to produce insulin to specialized E.coli constructs to synthesize the same, we have stridden a long way in Biotechnology. But are we at the epitome of our efficiency? Researchers at every lab or industry have at some point looked at their Bradford Assay, let out a sigh of disappointment, and begun the process of optimizing protein production. Numerous approaches have been tried and implemented, but they have their expediencies and shortcomings (Rosano and Ceccarelli, 2014). Protein misfolding, aggregation, difficulty in expression, and low yields are just some of the complexities faced at the expression level. We plan to utilize 5'UTR sequences, sequences that are coded upstream of the coding region of a gene, an approach that can increase the half-life of the mRNA, leading to increased efficiency in protein production without undesired aggregation(Eisenhut et al., 2020). The addition of UTR sequences can increase the half-life of mRNA, which can, in turn, augment protein production. With the extensive genomic data and computational software available, we strive to make a foundational advance in the realm of synthetic biology. If successful, this could lead to a revolution where customized nucleotide sequencing is at the center of protein production enhancement. [Wiki](https://2022.igem.wiki/ict-mumbai)https://static.igem.org/peertube/streaming-playlists/hls/412ca369-e818-481f-a532-5ef0a5a24bad/498da93a-dd4b-4bd1-b577-fdda0c7e7b0c-master.m3u8https://video.igem.org/videos/embed/93Mv7f3PHmFFj8r42Dwk1z1180422022-09-02T15:24:08.824ZYES2022 Project PromotionsNOhttps://video.igem.org/w/s8K7w1RepKXS86f2dLpRVZhttps://video.igem.org/lazy-static/thumbnails/018ee095-a991-4103-b74e-9899eac65916.jpgMcMaster_Canada: A logic-gate approach to Major Depressive Disorder biomarker de... (2022) - Proj...**Title:** A logic-gate approach to Major Depressive Disorder biomarker detection **Description:** Major Depressive Disorder (MDD) is a severe and highly prevalent mental disorder that is projected by the WHO to be the leading disease burden worldwide by 2030. Given this, our team has decided to create a biological system to evaluate levels of three biomarkers for the condition through a logic-gate system that enables increased detection specificity. [Wiki](https://2022.igem.wiki/mcmaster-canada)https://static.igem.org/peertube/streaming-playlists/hls/d3a26167-ee2a-4e51-ad9f-d6562353b037/e1880c84-75c4-4038-8170-11a55f34d8dd-master.m3u8https://video.igem.org/videos/embed/s8K7w1RepKXS86f2dLpRVZ940342022-09-02T15:25:32.490ZYES2022 Project PromotionsNOhttps://video.igem.org/w/po371RPdBpbr6yVYqNPYechttps://video.igem.org/lazy-static/thumbnails/1b29d648-5157-48d6-8875-c9d47763996d.jpgSUNY_Oneonta: CyanoSpectre (2022) - Project Promotion [English]**Title:** CyanoSpectre **Description:** Cyanobacteria are fast-emerging effective chassis for the sustainable synthesis of organic compounds. Cyanophages are cyanobacteria-infecting viruses that regulate their populations in nature. This makes them a promising vehicle for cyanobacterial engineering. Our project will create a “ghost phage” which will consist of a minimal set of cyanophage genes assembled into a phagemid vector that can replicate in E. coli and produce the structural proteins of the phage. [Wiki](https://2022.igem.wiki/suny-oneonta)https://static.igem.org/peertube/streaming-playlists/hls/bd55d93c-16f9-41d3-b8a9-fb0704388095/25feeb62-e7dc-4401-9c2e-47a77f384560-master.m3u8https://video.igem.org/videos/embed/po371RPdBpbr6yVYqNPYec1170702022-09-02T15:27:25.877ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tToW2JrbuRFXoTD4n29iYNhttps://video.igem.org/lazy-static/thumbnails/9b56d62c-c81a-464d-9bfb-d5a402240f9a.jpgQdai: Biogas (2022) - Project Promotion [English]**Title:** Biogas **Description:** Our goal is artificial methane production. The production of methane from livestock waste, which is currently a depleting resource, will lead to a sustainable society. Methane production involves three steps These are the decomposition of cellulose, the synthesis of acetic acid, and the synthesis of methane from acetic acid. We will focus on the synthesis of acetic acid in particular. [Wiki](https://2022.igem.wiki/qdai)https://static.igem.org/peertube/streaming-playlists/hls/e1d3cee3-82b8-4eb1-83f8-73e402b85af2/18b533da-e428-4a80-be72-7b4cb41ebe2b-master.m3u8https://video.igem.org/videos/embed/tToW2JrbuRFXoTD4n29iYN1150402022-09-02T15:29:02.744ZYES2022 Project PromotionsNOhttps://video.igem.org/w/bTaJjUsQm1j7qi1VkQRsuKhttps://video.igem.org/lazy-static/thumbnails/ac1266a8-d2e5-48c9-8334-3b460bb96565.jpgVIT_Vellore: Combating ABR with 'Tetonin' (2022) - Project Promotion [English]**Title:** Combating ABR with 'Tetonin' **Description:** Curbing ABR at its roots in agriculture to prevent the biomagnification of antibiotics in the food chain is the need of the hour. With Tetonin, we explore the potential mutations in small laccase from Streptomyces coelicolor that can make it superiorly capable of specifically degrading unmetabolized tetracycline from cow dung. After all, all bugs don't need drugs. [Wiki](https://2022.igem.wiki/vit-vellore)https://static.igem.org/peertube/streaming-playlists/hls/582050a6-db8b-4955-aaed-01c46c3edff3/25ee6a13-93de-4d8f-ae25-5a7ffab84c10-master.m3u8https://video.igem.org/videos/embed/bTaJjUsQm1j7qi1VkQRsuK1200832022-09-02T15:29:43.277ZYES2022 Project PromotionsNOhttps://video.igem.org/w/gaBLCg2bxZqVPqdy4vQfSdhttps://video.igem.org/lazy-static/thumbnails/655b0251-edaa-4a02-a1ee-6c73a09d4e4d.jpgPatras_Uni_Hellas: Marble Erosion Cure - MerCure (2022) - Project Promotion [English]**Warning:** This video does not follow the guidelines, it contains wrong or mismatched captions. **Title:** Marble Erosion Cure - MerCure **Description:** Historical monuments are of paramount importance for the cultural heritage of people ,and especially Greece, which is characterized by years of history. The beauty of such monuments is altered by the bioerosion to which marbles are exposed.Various techniques are used to deal with biocorrosion. The most common of these are chemical biocides, which are effective against microorganisms, however they are not preferred by conservators as they have a number of disadvantages. In particular, their application must be carried out during the spring months, when tourism is at its height, and so not only conservators, but also too many tourists, come into contact with toxic chemical compounds. Apart from the human factor, these toxic compounds diffuse into nature, posing a threat to the biodiversity of the surrounding area of the monuments and the aquatic ecosystems they end up in. Furthermore, these chemical compounds may also cause problems for the marble itself. Finally, the resistance that microorganisms develop to these chemical compounds over time makes such approaches, in the long term, ineffective in combating biocorrosion. Trying to provide a solution to this problem, the Uni Patras Hellas research team has developed a biological biocide, which will be easy to use for conservators, friendly to humans, the environment and marble. Targeting the evaluation of the activity of tachyplesin as a key component of a biological biocide, the experimental procedures will involve the transformation of E. coli strains with recombinant plasmids containing the desired nucleotide sequence. After characterisation of the expression and purity of the peptide under study, the efficacy of tachyplesin as a biocide will be evaluated in Gram-positive and Gram-negative bacteria, as well as fungi localized on marbles. [Wiki](https://202...https://static.igem.org/peertube/streaming-playlists/hls/7ad0d148-0787-4ab5-9416-47738d98ce88/6222f073-cb91-4181-a367-fe8404794f8d-master.m3u8https://video.igem.org/videos/embed/gaBLCg2bxZqVPqdy4vQfSd1120222022-09-02T15:33:59.765ZYES2022 Project PromotionsNOhttps://video.igem.org/w/hdr3QCybMBcwFHsFLLWPfphttps://video.igem.org/lazy-static/thumbnails/6d92840e-2fa8-42b1-b0c9-e0618a863566.jpgTec-Monterrey: rnAIR: Antibiotic resistance genes silencing system (2022) - Project Promotion [En...**Title:** rnAIR: Antibiotic resistance genes silencing system **Description:** Antibiotic resistance is considered one of the main threats to Mexican public health, which will be responsible for 10 million deaths per year by 2050 worldwide. Our team developed an integrated system for designing small RNAs that silence antibiotic resistance genes and then delivering them through a nebulizer system with bacteriophages microfluidically encapsulated by liposomes. We’re also working on a sRNA database in order to train a machine learning algorithm [Wiki](https://2022.igem.wiki/tec-monterrey)https://static.igem.org/peertube/streaming-playlists/hls/834e94ac-7b76-45c1-8504-ed2075606b4f/86a47c16-f188-409b-b227-fc48b0517402-master.m3u8https://video.igem.org/videos/embed/hdr3QCybMBcwFHsFLLWPfp1180882022-09-02T15:35:15.467ZYES2022 Project PromotionsNOhttps://video.igem.org/w/rUnvGxDNVuvQ6hn4FYmhSUhttps://video.igem.org/lazy-static/thumbnails/6c7549dd-be19-4765-b4ee-6a391783da36.jpgManchester: A bacterial companion to aid growth and lipid accumulation in microa... (2022) - Proj...**Title:** A bacterial companion to aid growth and lipid accumulation in microalgae **Description:** Cost-friendly wastewater treatment and biofuel production are two major pressing challenges globally. We believe we can tackle both of these challenges using microalgae. Therefore, Team Manchester are developing BloomAid: an engineered bacteria that will assist in microalgal growth and lipid accumulation, which can subsequently be converted into biofuels. [Wiki](https://2022.igem.wiki/manchester)https://static.igem.org/peertube/streaming-playlists/hls/d1c4665a-2a62-4d37-b5ab-4337f69d7908/82091a99-3ca9-4b00-a4e5-202200efcd9d-master.m3u8https://video.igem.org/videos/embed/rUnvGxDNVuvQ6hn4FYmhSU1140562022-09-02T15:45:21.274ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tSDZ8gJeEmJbqpsJjc6PYzhttps://video.igem.org/lazy-static/thumbnails/06d5290d-73bd-4024-8e55-9f8f8e071d7f.jpgBNSC_China: ONCE: Advanced Synthetic Biology Platform for Industrialization (2022) - Project Prom...**Title:** ONCE: Advanced Synthetic Biology Platform for Industrialization **Description:** ONCE China(Registered name: BNSC_China) is a team composed of iGEM alumni in China. This year, we are trying to industrialize our iGEM project, to show how iGEMers can change the world. #Vibrio_natriegens #Industrialization #iGEM_Alumni #Comestics #Sugar_Substitutes [Wiki](https://2022.igem.wiki/bnsc-china)https://static.igem.org/peertube/streaming-playlists/hls/e1b95763-4452-4b32-9ac3-5e5248b544a5/eae45d3c-712a-4cdb-b100-56a7e1c5f03c-master.m3u8https://video.igem.org/videos/embed/tSDZ8gJeEmJbqpsJjc6PYz1200472022-09-02T15:58:31.401ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xmzCCBECfjL7e4B9cbEChVhttps://video.igem.org/lazy-static/thumbnails/4e0a0f58-00db-4dfa-b483-76141d4f3821.jpgMiamiU: SynPhage (2022) - Project Promotion [English]**Title:** SynPhage **Description:** Miami University is using biologically - engineered bacteriophages to aid in the fight against anti-biotic resistant bacteria. Our project adds a nanobody from a camel to the end of T7's tail fiber using three different methods. [Wiki](https://2022.igem.wiki/miamiu)https://static.igem.org/peertube/streaming-playlists/hls/fdeae669-e8e2-45a6-8626-8a93db013dd5/603712aa-5b98-4783-bad6-e35b8e9cd48e-master.m3u8https://video.igem.org/videos/embed/xmzCCBECfjL7e4B9cbEChV1180962022-09-02T15:46:29.039ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sd8XihodGP266u1BD4Mwe4https://video.igem.org/lazy-static/thumbnails/6fec23c2-9e74-4ac5-a57a-0c546b2cceb1.jpgMontpellier: SHELL’LOCK: saving the pearl of our region (2022) - Project Promotion [English]**Title:** SHELL’LOCK: saving the pearl of our region **Description:** Fast and reliable oyster-pathogen #detection is critical to find new strategies to reduce shellfish losses throughout the farming process. In the #Thau lagoon, representing 10% of the #oyster French production, farmers face up to 80% of juvenile oyster deaths, mainly due to the bacterium V. aesturianus. Current PCR-based pathogen detections are lengthy and not directly accessible to farmers. Instead, we present SHELL’LOCK, a #CRISPR-Cas detection system that is user-friendly and #paper-based. [Wiki](https://2022.igem.wiki/montpellier)https://static.igem.org/peertube/streaming-playlists/hls/d43f6e8e-b1af-41ad-a303-1cef8851d245/972bdb05-5d6a-4271-bcc2-9fbfc44b4f71-master.m3u8https://video.igem.org/videos/embed/sd8XihodGP266u1BD4Mwe412004502022-09-02T15:53:53.647ZYES2022 Project PromotionsNOhttps://video.igem.org/w/qP4JhaqtAi4ZAM14a6aByfhttps://video.igem.org/lazy-static/thumbnails/26f93232-5904-4cad-8d7b-1f341c0f4261.jpgUni-Hamburg: SPEAR - Sensing Pathogens and Emerging Antibiotic Resistance (2022) - Project Promot...**Title:** SPEAR - Sensing Pathogens and Emerging Antibiotic Resistance **Description:** In our current antibiotic resistance crisis, we help by developing an easy and fast assay of detecting bacterial RNA and are therefore independent of bacterial growth. The split ribozyme we are using can also detect RNAs that cause antibiotic resistance. With SPEAR – Sensing Pathogens and Emerging Antibiotic Resistance – patients will get the appropriate treatment they need. [Wiki](https://2022.igem.wiki/uni-hamburg)https://static.igem.org/peertube/streaming-playlists/hls/c8ed9544-37da-4ed0-9dcd-8b70d493e252/f4d8fb85-6add-44d0-9ffd-82bcfe3a0c2f-master.m3u8https://video.igem.org/videos/embed/qP4JhaqtAi4ZAM14a6aByf1200882022-09-02T15:54:27.412ZYES2022 Project PromotionsNOhttps://video.igem.org/w/vUEELizQG9EQw4FPbKAxuPhttps://video.igem.org/lazy-static/thumbnails/2f0fcadc-3ce2-4520-8069-d4757811c706.jpgIISER_Mohali: NeuraSyn: Neural chip-based Simultaneous Microbial Detection using... (2022) - Proj...**Title:** NeuraSyn: Neural chip-based Simultaneous Microbial Detection using Aptamers **Description:** We have created neural chips using trained neuroblast cells to detect signals and learn to take decisions. A platform called NeuraSyn uses the chip to detect microbes. NeuraSyn uses three aptamers that bind to E. coli, S. typhimurium, or Penicillin G from Penicillium respectively, causing a change in electrical impedance, which is relayed to the chip. The chip decides, based on thresholds computed during training, which of the three microbes are present and sends the output to a microcontroller. [Wiki](https://2022.igem.wiki/iiser-mohali)https://static.igem.org/peertube/streaming-playlists/hls/f2338703-2de5-4111-b6c5-f70ffb04df63/2c06b882-eb49-4d2a-942c-29d7f401aeb3-master.m3u8https://video.igem.org/videos/embed/vUEELizQG9EQw4FPbKAxuP1200992022-09-02T15:59:35.456ZYES2022 Project PromotionsNOhttps://video.igem.org/w/quLA3kh3dLdEQ4GCtYRYYkhttps://video.igem.org/lazy-static/thumbnails/0086ed98-5cbc-45d9-a4ed-9fe82d7b7470.jpgKUAS_Korea: ABC biofilter: Algal Bloom Cleaning & Anammox Based on Cell free bio... (2022) - Proj...**Title:** ABC biofilter: Algal Bloom Cleaning & Anammox Based on Cell free biofilter **Description:** Our team observed the damage of river ecosystems caused by algae bloom in Republic of Korea this year, and community members suffered from algae bloom, with the odor of rivers and microcystin detected in tap water and various crops. Therefore, our team has devised ABC biofilter, which solves this problem while also considering bio safety. In ABC biofilter, ABC represents for Algal Bloom Cleaning and Anammox Based on Cell free system. Because anammox bacteria are difficult to cultivate, we produce enzymes necessary for the anammox process through cell free system, produce the biofilter with that enzymes which convert NO2- and NH4+ into nitrogen, and prevent eutrophication which is the main cause of algae bloom. Also, we use cell free system to produce Superoxide dismutase (SOD) which produce H2O2 and add SOD to the biofilter that remove green algae too. Through this, we will prevent the annual occurrence of algae bloom in rivers and remove green algae to maintain a healthy ecosystem of rivers and prevent community members, and furthermore, people around the world from being harmed by algae bloom. [Wiki](https://2022.igem.wiki/kuas-korea)https://static.igem.org/peertube/streaming-playlists/hls/c65fa18c-b57e-4671-9777-facf635e11ab/37b57d40-eae3-485e-9acd-b6d2d4e1ce87-master.m3u8https://video.igem.org/videos/embed/quLA3kh3dLdEQ4GCtYRYYk1160562022-09-02T16:05:21.029ZYES2022 Project PromotionsNOhttps://video.igem.org/w/bSd4r7FjHb2cRktBEMcz2Hhttps://video.igem.org/lazy-static/thumbnails/e786fc81-2495-491c-af35-49a383dcf597.jpgUFlorida: Glioblastoma Multiforme (2022) - Project Promotion [English]**Title:** Glioblastoma Multiforme **Description:** No abstract [Wiki](https://2022.igem.wiki/uflorida)https://static.igem.org/peertube/streaming-playlists/hls/57fe01c0-4050-47a1-a986-7c816187ca8f/230c8205-c44e-4f97-ae28-cf8ab57a2899-master.m3u8https://video.igem.org/videos/embed/bSd4r7FjHb2cRktBEMcz2H1200362022-09-02T16:05:53.211ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nnideMo1ZjvvABmH67vNhRhttps://video.igem.org/lazy-static/thumbnails/d7be38d6-795f-429e-b58a-795e2a3ed6f6.jpgEstonia_TUIT: SpaceYeast (2022) - Project Promotion [English]**Title:** SpaceYeast **Description:** Estonia_TUIT genetically engineers baker’s yeast to produce melanin, a black pigment that bakers yeast normally do not produce, and which is known to absorb radiation. To do that, we overexpress tyrosinase, an enzyme that converts common amino acid tyrosine into melanin. Synthesized melanin is anchored by a melanin-binding peptide on the cell surface and creates a radiation scavenger layer. [Wiki](https://2022.igem.wiki/estonia-tuit)https://static.igem.org/peertube/streaming-playlists/hls/ad09233f-1703-4643-a583-0c95ec655691/dcb6df75-3d67-4108-a3a2-3bfc5f1d9d9a-master.m3u8https://video.igem.org/videos/embed/nnideMo1ZjvvABmH67vNhR12001422022-09-02T16:18:02.757ZYES2022 Project PromotionsNOhttps://video.igem.org/w/awM5fERdo3X8GVNbqdkSKrhttps://video.igem.org/lazy-static/thumbnails/041c8f67-b4ad-475d-b3c0-4ed8a06afa75.jpgTheKingsSchool_AU_HS: Sweet Genes (2022) - Project Promotion [English]**Title:** Sweet Genes **Description:** Our world is producing more bio-waste than ever, releasing large amounts of greenhouse gases that destroy the environment. Genetically engineered bacteria can convert sugars stored in lignocellulosic bio-waste to useful products, but they cannot metabolise xylose well, leaving behind up to 30% of the sugars. Sweet Genes aims to allow E. coli to metabolise xylose more efficiently, enabling them to unlock the potential of the unused sugar content. We hope to aid in developing a circular bio-economy that makes profit on both its products and waste. [Wiki](https://2022.igem.wiki/thekingsschool-au-hs)https://static.igem.org/peertube/streaming-playlists/hls/4d2e56a5-970d-4c2a-9acd-5819461f4a17/13e3db15-2a44-4446-81af-cfb26edda1cd-master.m3u8https://video.igem.org/videos/embed/awM5fERdo3X8GVNbqdkSKr1190912022-09-02T16:22:40.423ZYES2022 Project PromotionsNOhttps://video.igem.org/w/cc9qMSiQ99qutDKszNageEhttps://video.igem.org/lazy-static/thumbnails/3b785c50-92f0-4210-9482-fd1db965d712.jpgUESTC-BioTech: CHLIPID: a highly productive biofuel factory (2022) - Project Promotion [English]**Title:** CHLIPID: a highly productive biofuel factory **Description:** Traditional energy mix has caused disastrous damage to Earth. The development of renewable energy is crucial for the whole planet. We use transcriptome analysis and CRISPR/Cas9 system to discover and manipulate metabolic genes in our chassis, namely Chlamydomonas reinhardtii, to enrich lipid productivity. We are looking forward to creating a world with more sufficient energy by using microalgae for biofuel production. [Wiki](https://2022.igem.wiki/uestc-biotech)https://static.igem.org/peertube/streaming-playlists/hls/5aa2e67b-2a11-437d-844e-04714b34ef1c/5a84db32-612a-4bbd-99e7-df8c8484c781-master.m3u8https://video.igem.org/videos/embed/cc9qMSiQ99qutDKszNageE1190812022-09-02T16:29:08.962ZYES2022 Project PromotionsNOhttps://video.igem.org/w/skAThTLV5ZwXkBsWE7jRhqhttps://video.igem.org/lazy-static/thumbnails/ce4c253d-3420-4ded-97a6-1b3e2985feb9.jpgGroningen: Passive Immunuzation strategy to protect poultry against avian influenza (2022) - Proj...**Title:** Passive Immunuzation strategy to protect poultry against avian influenza **Description:** Conventional vaccination strategies are not able to fully tackle the Dutch avian influenza crisis due to the significant logistics effort and investment costs of these. Therefore, we aimed to design and engineer a more convenient and scalable alternative to address this crisis. With our project, Nanobuddy, we set out to find a novel and cost-effective strategy to quickly protect poultry on a large scale against the highly pathogenic avian influenza virus variant (H5), which is the main virus strain raging through the Netherlands, as well as the rest of the world. [Wiki](https://2022.igem.wiki/groningen)https://static.igem.org/peertube/streaming-playlists/hls/d54a3c2a-79b5-4725-aae8-f3b0cb24d20c/3fe0ac2b-87ea-4277-835e-9267318ea004-master.m3u8https://video.igem.org/videos/embed/skAThTLV5ZwXkBsWE7jRhq1200662022-09-02T16:30:01.553ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nDpJjj8iFNfCT4BrsJgYkvhttps://video.igem.org/lazy-static/thumbnails/4408e95c-af35-4088-a72a-7a0b586f29fa.jpgUFMG_UFV_Brazil: ProChi (2022) - Project Promotion [English]**Title:** ProChi **Description:** The iGEM team UFMG_UFV_Brazil presents “ProChi”, a biopharmaceutical probiotic able to colonize the small intestine and inactivate adult helminths and its eggs. This alternative treatment for helminthiasis consists of a genetically engineered Lactobacillus acidophilus, capable of producing and secreting the enzyme chitinase, originated from fungi, in the human intestine. The project idea is to combine the anthelmintic effect of the chitinase with the probiotic benefits of Lactobacillus acidophilus. [Wiki](https://2022.igem.wiki/ufmg-ufv-brazil)https://static.igem.org/peertube/streaming-playlists/hls/af490e23-296a-4b7d-bc98-e5d669a1e043/4728c0bd-4a7e-495a-89fb-a5434f61fbba-master.m3u8https://video.igem.org/videos/embed/nDpJjj8iFNfCT4BrsJgYkv10801002022-09-02T16:30:33.792ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xfsD8qbjB5AS5etB6WC9gghttps://video.igem.org/lazy-static/thumbnails/96fdbb56-8be2-463b-b0ad-4b66d368a9a4.jpgGEMS_Taiwan: Fusarium Won’t: A Biofungicidal Rhizobacteria to Persistently Prote... (2022) - Proj...**Warning:** This video does not follow the guidelines, it has no captions. **Title:** Fusarium Won’t: A Biofungicidal Rhizobacteria to Persistently Protect Against Fusarium Wilt of Bananas. **Description:** The world’s favorite fruit - Bananas - are under threat by a devastating disease: Fusarium Wilt. If the banana industry were to collapse, the repercussions would be unfathomable. We aim to engineer a B. subtilis-based biofungicidal rhizobacteria to persistently protect the banana plant’s root against the fungal pathogen F. oxysporum cubense TR4(FOC TR4). Our project, Fusarium Won’t, will be a new line of defense against the ongoing, insidious FOC pandemic. [Wiki](https://2022.igem.wiki/gems-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/fd1020f9-7988-45fd-ae08-def4d02f6af5/d3ee7751-1242-412f-a3af-ee13d241f6c3-master.m3u8https://video.igem.org/videos/embed/xfsD8qbjB5AS5etB6WC9gg1050862022-09-02T16:31:42.647ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sEdfAA19FPc124vC2Mn328https://video.igem.org/lazy-static/thumbnails/4267b14b-7855-4b00-a868-e3d04bfd12d7.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [English]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/d7e36b34-c2eb-4da5-a0ab-b326f63757c1/c6f2bd38-12ce-4f28-b760-4b541e82a81b-master.m3u8https://video.igem.org/videos/embed/sEdfAA19FPc124vC2Mn32812001042022-09-02T16:33:19.007ZYES2022 Project PromotionsNOhttps://video.igem.org/w/eMh1yJHp97VvHRmPjR4LZchttps://video.igem.org/lazy-static/thumbnails/93845305-61a8-4d9d-a603-2ecac6904fc1.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [Swedish]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/6f992379-cec2-4b97-95b4-1cb7621d51ad/c17ff638-b03e-4e9b-9f24-270081186cef-master.m3u8https://video.igem.org/videos/embed/eMh1yJHp97VvHRmPjR4LZc1200122022-09-02T16:37:58.348ZYES2022 Project PromotionsNOhttps://video.igem.org/w/wfQQDmQNnQB8TgX6iS2Akahttps://video.igem.org/lazy-static/thumbnails/49c60772-1344-4460-ad5b-15e39f602475.jpgGastonDay-Shangde: Nonketotic Hyperglycinemia--Engendered E.coli production of C... (2022) - Proj...**Title:** Nonketotic Hyperglycinemia--Engendered E.coli production of Cinematic acids, Cinnamoyl-CoA, and Cinnamaldehyde **Description:** Nonketotic hyperglycinemia (NKH) is a rare metabolic and genetic disorder caused by a defect enzyme system that breaks down glycine, allowing the amino acid to accumulate glycine level in the brain. Some compounds found in cinnamon seem to reduce the glycine level in the body. We have plasmids containing the genes which code for the enzymes in the pathway and are in the process of expressing them in E. coli. Ideally, with the genetically modified E. coli, we will be able to produce cinematic acids, cinnamoyl-CoA, and cinnamaldehyde. [Wiki](https://2022.igem.wiki/gastonday-shangde)https://static.igem.org/peertube/streaming-playlists/hls/f504aba5-6c7b-4150-af16-8dcdcbe2cbc7/0ccbbe37-0ef6-4119-a3ca-aa32110d1d54-master.m3u8https://video.igem.org/videos/embed/wfQQDmQNnQB8TgX6iS2Aka1200182022-09-02T16:38:27.318ZYES2022 Project PromotionsNOhttps://video.igem.org/w/pcsLudptSqCQYJuMDBJ6Zphttps://video.igem.org/lazy-static/thumbnails/9c10a708-8168-4fd3-9049-7aa77597814c.jpgSYPHU-China: TNBCanceraser to help patients gat rid of cancer (2022) - Project Promotion [English]**Title:** TNBCanceraser to help patients gat rid of cancer **Description:** There is a well-known fact that breast cancer has overtaken lung cancer as the most frequently diagnosed cancer according to the Health China. Although almost Breast cancer have over expressing of estrogen receptor ， progesterone receptor and human epidermal growth factor receptor 2， yet other type of BC called TNBC lacks all of them . Therefore， target therapy become low response rate. Now ， the effective approach for targeting HER2 such as Trastuzumab for breast cancer still play a little role in TNBC for terrible targeting . Meanwhile ， it always associates with toxicity and resistance. Therefore， new therapy strategies to TNBC are urgently needed. Recently， Lgals2 has been proved to be a potential target for TNBC. Therefore， we decided to modify the probiotic E.colo Nissle 1917. Tsr is a typical chemoreceptor in it ， we knock its gene and use plasmid to express Tlpc which exist in H pylori. It receive stimulates and swim to the high lactic region which is characterized by cancer cell’s microenvironment. Then ， we decide to use ScFv to bind Lgals2 .After binding it ， it will induce the expression of PEA which can kill cancer cells. [Wiki](https://2022.igem.wiki/syphu-china)https://static.igem.org/peertube/streaming-playlists/hls/bbdbddcc-acd8-47c3-8752-577c38d19bd5/f7994403-d56d-4b23-870a-934efae9f598-master.m3u8https://video.igem.org/videos/embed/pcsLudptSqCQYJuMDBJ6Zp102032022-09-02T16:40:09.632ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mcD1FTyCCh6og6MfcXpbEHhttps://video.igem.org/lazy-static/thumbnails/47ed3387-f567-43e9-b05f-1cc0fdaaf4c8.jpgZJUintl-China: Ambrosia: Engineering CAR-T for Anti-aging (2022) - Project Promotion [English]**Title:** Ambrosia: Engineering CAR-T for Anti-aging **Description:** Immortality has been an eternal quest for humanity. According to the prediction of the World Health Organisation, the number of elderly will reach 2.1 billion by 2050. Population aging is becoming an increasingly important issue. From a microscopic perspective, aging is associated with senescence-associated secretory phenotypes (SASP). The inflammatory factors secreted by senescent cells will affect other cells and expand the scope of senescence, which emphasizes the importance of the elimination of senescent cells. Considering the crucial role of organ fibrosis in the lung and liver during aging, we chose senescence fibroblasts as the clearance targets. Given the amazing efficiency of Chimeric antigen receptor T (CAR-T) in cancer therapy, we design engineered anti-aging CAR-T, which can precisely recognize highly expressed dipeptidyl peptidase-4 on the surface of senescent fibroblasts. To prevent cytokine release syndrome, a common side effect of CAR-T therapy in clinical, we introduce a negative feedback monitor that dynamically detects interleukin-6 to the anti-aging CAR-T. Initially, this CAR-T will attack senescent cells and resulting in inflammation accumulation as usual. However, as the inflammation accumulates to a considerable level, the monitor will brake stop the CAR-T, preventing systemic inflammation. Therefore, CAR-T can constantly eradicate senescent fibroblasts without side effects. By promoting the widespread utilization of anti-aging CAR-T, we hope to increase global life expectancy and improve the quality of life of the elderly, defeating the myth that aging is invincible. [Wiki](https://2022.igem.wiki/zjuintl-china)https://static.igem.org/peertube/streaming-playlists/hls/a396c397-f5a3-4f34-a0d1-7b16215b3d15/7ddbc248-30d1-4de6-a41a-bb97167461a8-master.m3u8https://video.igem.org/videos/embed/mcD1FTyCCh6og6MfcXpbEH12001322022-09-02T16:41:02.788ZYES2022 Project PromotionsNOhttps://video.igem.org/w/no34YutSFj8WDVuE5g7LYThttps://video.igem.org/lazy-static/thumbnails/f022cf9d-5173-4a41-b795-dfe9262eacb7.jpgUAlberta-Canada: Laboratory Madness (2022) - Project Promotion [English]**Title:** Laboratory Madness **Description:** Our project, Claymore, is a bacterial system capable of detecting the opportunistic pathogen Candida albicans and killing it with an antibiotic. In our video, a researcher falls asleep in the lab and has a dream about meeting Candida albicans and the project Claymore as humans. [Wiki](https://2022.igem.wiki/ualberta-canada)https://static.igem.org/peertube/streaming-playlists/hls/ad238cb0-87be-4868-b822-db6000c9a0f3/1fced5ad-1cc9-47ad-92e1-df0dc51bad71-master.m3u8https://video.igem.org/videos/embed/no34YutSFj8WDVuE5g7LYT1120242022-09-02T16:41:39.983ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nDrQjCvNfgZ2fB9BhsRr1dhttps://video.igem.org/lazy-static/thumbnails/3ad2a7c9-aff7-4922-890e-9b99fab61d87.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [German]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/af4a5a01-06c9-4a9b-b579-107416f79198/2abeabca-b861-4918-878c-248a7b36bfea-master.m3u8https://video.igem.org/videos/embed/nDrQjCvNfgZ2fB9BhsRr1d1200122022-09-02T16:43:14.091ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xywpUVjs7xy3j9fJs4xTHNhttps://video.igem.org/lazy-static/thumbnails/0878a272-ff24-46bc-825f-8039ccb2eadc.jpgMIT: GSHield: A Synthetic Biology Solution to Oral Mucositis (2022) - Project Promotion [English]**Title:** GSHield: A Synthetic Biology Solution to Oral Mucositis **Description:** Oral mucositis is a common complication of cancer therapies characterized by the inflammation and breakdown of epithelial cells in the oral cavity, leaving oral mucosal tissue susceptible to infection and ulceration. While current therapeutics revolve around oral hygiene as both a method of prevention and as a method of treatment, the ultimate goal of our project is to produce a bacterial cellulose patch functionalized with glutathione-producing engineered yeast. [Wiki](https://2022.igem.wiki/mit)https://static.igem.org/peertube/streaming-playlists/hls/ff95d761-b879-4271-86e9-5baba6f3196c/2ff552af-39fe-4872-9164-d03d3345fdde-master.m3u8https://video.igem.org/videos/embed/xywpUVjs7xy3j9fJs4xTHN12001622022-09-02T16:43:42.828ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tmuEmX3iKqpUHMYa5g73YGhttps://video.igem.org/lazy-static/thumbnails/ec314f83-f5df-499c-aed6-bb6045d6c655.jpgNYCU_Formosa: UBX Biomaterial Manufacturing Platform Advertisement (2022) - Project Promotion [En...**Warning:** This video contains potentially disturbing content (such as scenes of violence, death, or drug use) that may be upsetting to some viewers. **Title:** UBX Biomaterial Manufacturing Platform Advertisement **Description:** It’s is an advertisement of the UBX Biomaterial Manufacturing Platform. The fox is showing an innovative platform to Dr. V. The unique properties and analytical model of UBX platform provides him manufacture methods to develop multifunctional biomaterial. By utilizing the platform, the scientist successfully develop a conductive, antimicrobial material. [Wiki](https://2022.igem.wiki/nycu-formosa)https://static.igem.org/peertube/streaming-playlists/hls/dd83484d-a7b9-43f0-a7d1-e8bcfd5701c0/4d59ac39-ceae-45ba-ba88-703066af6d18-master.m3u8https://video.igem.org/videos/embed/tmuEmX3iKqpUHMYa5g73YG1200672022-09-02T16:46:17.404ZYES2022 Project PromotionsNOhttps://video.igem.org/w/aLx1ye51h9rrLkfmx1VJGshttps://video.igem.org/lazy-static/thumbnails/d73aa894-6d3a-47e6-b0bc-5b47fc829269.jpgUAM: SPIDICIDE (2022) - Project Promotion [English]**Title:** SPIDICIDE **Description:** Mexico has an enormous agricultural biodiversity. However, several pests attack crops impacting the sustain of families in rural communities and the national economy, and food supply. Our team seeks to control the critical Coleopteran pests by producing a biopesticide to protect the crops, farmers, and environment. The active ingredients are two spider venom peptides, Omega-hexatoxin-Hv2a and U1-theraphotoxin-Sp1a. These have specific action against coleopterans and do not affect human health. [Wiki](https://2022.igem.wiki/uam)https://static.igem.org/peertube/streaming-playlists/hls/4f1a158b-0061-496f-bbb6-2bd8950220ba/d30dcaaa-1164-4a31-87d3-5e69f9f8f4fe-master.m3u8https://video.igem.org/videos/embed/aLx1ye51h9rrLkfmx1VJGs12001002022-09-02T16:48:53.852ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sUpXhD7vqms6r8LwanSHk8https://video.igem.org/lazy-static/thumbnails/f7c8239d-a453-466f-bca5-a22e88b1562d.jpgREC-CHENNAI: Curlim (2022) - Project Promotion [English]**Title:** Curlim **Description:** Heavy metals pose a potential threat to human health, causing various ailments. REC-CHENNAI proposes the project "CURLIM" with the aim of reducing heavy metal toxicity in industrial wastewater. A genetically engineered E. coli biofilm with a suffused phosphatase enzyme forms metal complexes with heavy metals and sediment. Our approach for this process will be a small-laboratory scale prototype reactor construction, which is also cost-effective. [Wiki](https://2022.igem.wiki/rec-chennai)https://static.igem.org/peertube/streaming-playlists/hls/d9df0afb-53da-4a65-bb1e-644cbddfee59/f2985e52-511a-4580-8c23-06485e0a6ae2-master.m3u8https://video.igem.org/videos/embed/sUpXhD7vqms6r8LwanSHk8119012972022-09-02T17:41:18.931ZYES2022 Project PromotionsNOhttps://video.igem.org/w/1Y2W7BgjppnxMRtjPZSsGVhttps://video.igem.org/lazy-static/thumbnails/c0bd4155-b401-4dd8-96bc-a93e5a4e9f2a.jpgEast_Coast_BioCrew: PCBusters: Here to Save the Water (2022) - Project Promotion [English]**Title:** PCBusters: Here to Save the Water **Description:** Polychlorinated biphenyls (PCBs) are a carcinogen that contaminates waterways due to large-scale industrial dumping. Current methods of detecting and degrading PCBs are either environmentally harmful or expensive. We are developing safe-to-use and accessible methods of detection and degradation of PCBs based on projects from the Stockholm-2020 and Chalmers-Gottenberg-2019 teams. We are genetically engineering both Rhodococcus to enhance its natural ability to degrade PCBs and using yeast to produce bioluminescence when in the presence of PCBs. We contacted the PCB division of the EPA for advice on how we could implement our project. Additionally, we reached out to professors in Maryland who worked on developing a technique to deliver PCB-degrading microbes to contaminated bodies of water. To inform the public about our work, we collaborated with other teams to educate people through classes and social media. Our system, conscious of previous work and health concerns, can mitigate the threat of PCBs. [Wiki](https://2022.igem.wiki/east-coast-biocrew)https://static.igem.org/peertube/streaming-playlists/hls/07d2d7a5-bef9-4aec-9032-10bffb5a7ead/f79070ad-eb7d-4049-bd21-8f861cd1d19a-master.m3u8https://video.igem.org/videos/embed/1Y2W7BgjppnxMRtjPZSsGV1200722022-09-02T18:03:27.567ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4ke5gcLkwVcmrdRY6PptGGhttps://video.igem.org/lazy-static/thumbnails/8d3fb633-dc93-44ee-a8af-59e6309c4754.jpgIIT_Roorkee: CRISPRLY (2022) - Project Promotion [English]**Title:** CRISPRLY **Description:** Cervical Cancer is the second most common cancer in women worldwide with greater than 99% of the cases caused by human papillomaviruses (HPVs). In 2018, approximately 311,000 women died from cervical cancer and more than 85% of these deaths occurred in low- and middle-income countries. Early detection of HPVs especially the high-risk strains is essential to prevent the disease progression by tissue removal. Among the high-risk strains of the virus, HR-HPV 16 is responsible for almost 70% of cervical cancer cases. The existing methods for HPV detection, such as qPCR lack sensitivity and specificity, while FDA-approved techniques like Hybrid Capture need invasive sample collection, expensive machinery and well-trained personnel. Detection of the HR-HPVs using a simple and rapid method is extremely important to take appropriate therapeutic action against cervical cancer, particularly in areas where specialized equipment is not available. We aim to design a point of care kit for the detection of the most oncogenic strain of Human Papillomavirus i.e., HPV16 using the CRISPR Cas12a system producing a visual readout on a lateral flow assay. [Wiki](https://2022.igem.wiki/iit-roorkee)https://static.igem.org/peertube/streaming-playlists/hls/1afa9abc-014f-43de-8e65-c3e8ff1e862c/e0df532d-125a-498c-9d2e-33b7cce9834c-master.m3u8https://video.igem.org/videos/embed/4ke5gcLkwVcmrdRY6PptGG1190892022-09-02T18:04:26.136ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sUZLPoyBVVGJ3bipiWDYuHhttps://video.igem.org/lazy-static/thumbnails/901cd3ae-2bfc-4130-bdea-e87e0d069623.jpgGoethe_Frankfurt: CADch me if you can! (2022) - Project Promotion [English]**Title:** CADch me if you can! **Description:** Nowdays we find ourselves in a world which is increasingly dependent on technologization. While society profits from this development in a myriad of ways, including a rise in the global standard of living, as well as a more efficient and innovative use of natural resources, we also need to be aware of the costs. The production process of certain high-tech devices such as smartphones and computers, which connect us worldwide, involves the extraction, refinement, and incorporation of potentially hazardous elements. One such metal with great properties as well as associated risks is cadmium, which finds its application in the production of batteries, solar panels, and semiconductors that power our modern world. Unfortunately, residual cadmium waste is also found contaminating rivers and soils and thereby harming wildlife such as plants and fish. Accumulation in higher animals, including humans, can lead to liver and kidney damage among other health implications. We, the 2022 iGEM Team Frankfurt of the Goethe University are developing bacterial systems for the detection of cadmium residues in waters and soils and the subsequent remediation process. Our quick and easy to use chip-based detection kit will allow for a sensitive recognition of cadmium in the field, without the need of a laboratory, by utilizing a novel modification of the inherent bacterial chemotaxis system. Furthermore, our advanced storage and recycling approach does not only remove cadmium from the contaminated sources but to recycle it in the form of quantum dots that can be used in the future production of solar panels. Our vision is to turn former negative environmental effects into new sustainable resources for the production processes of the future. [Wiki](https://2022.igem.wiki/goethe-frankfurt)https://static.igem.org/peertube/streaming-playlists/hls/d9f3e288-89cc-4698-8fb4-15a28ebe7769/bc02f98b-3ff5-4bc4-a27e-bac51865020b-master.m3u8https://video.igem.org/videos/embed/sUZLPoyBVVGJ3bipiWDYuH1200522022-09-02T18:17:05.529ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kKnhgmTn3c1d19FU2tcDYDhttps://video.igem.org/lazy-static/thumbnails/eb34798b-95b0-43ef-960d-e36b78ab6f45.jpgAix-Marseille: SEA CARE (2022) - Project Promotion [English]**Title:** SEA CARE **Description:** Marine pollution is nowadays a huge problem in today’s world context of climate change. Indeed, we produce 300 million tons of plastic each year worldwide, half of which is for single-use items. That's nearly equivalent to the weight of the entire human population. This material takes a very long time to decompose, in fact, it can take up to 1000 years. Because of this, it accumulates in all the ecosystems of the planet. Most plastics in the ocean break up into very small particles. These small plastic bits are called "microplastics" and have a huge negative impact not only for us (humans) but also for all the biodiversity on earth. Our iGEM Aix-Marseille 2022 team believes that it is not too late to act. Therefore, this year we have decided to work in the degradation of these microplastics and more particularly, in the degradation of polyethylene (PE), polypropylene (PP) and polystyrene (PS), the categories of microplastics which are mostly present in the Mediterranean Sea, one of the most polluted seas in the world. [Wiki](https://2022.igem.wiki/aix-marseille)https://static.igem.org/peertube/streaming-playlists/hls/9febbb2e-9582-4a48-b555-91e4d47c4f91/4cffb453-f454-4abe-ab69-4ff88037f2e4-master.m3u8https://video.igem.org/videos/embed/kKnhgmTn3c1d19FU2tcDYD12002172022-09-02T18:23:02.216ZYES2022 Project PromotionsNOhttps://video.igem.org/w/jaQbsuLGUpc126k2PRVh8khttps://video.igem.org/lazy-static/thumbnails/263311dd-9f31-456c-9dab-b63d54b108af.jpgStanford: MORPH (2022) - Project Promotion [English]**Title:** MORPH **Description:** The plastic is alive! Watch Stanford iGEM as they take on the challenge of global plastic pollution by optimizing plastic-degrading PETase enzymes to operate in yeast. Using OrthoRep to carry out continuous directed evolution on PETase, they strive to make the enzyme faster, more robust, and more mass-producible. Ultimately, they hope that their designed enzyme can make it into an at-home bioreactor for the degradation of personal plastic waste. [Wiki](https://2022.igem.wiki/stanford)https://static.igem.org/peertube/streaming-playlists/hls/9323e1c8-b182-49ea-b680-b50bdd0cab61/4051eb78-b0ed-4b2e-8af7-81619eb7c35d-master.m3u8https://video.igem.org/videos/embed/jaQbsuLGUpc126k2PRVh8k11803492022-09-02T19:22:39.774ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tDjEV7vSs3dURYA9Eux1w5https://video.igem.org/lazy-static/thumbnails/20298db8-6aaa-43a5-9d20-79548a544c7f.jpgTuebingen: Anatoxic (2022) - Project Promotion [English]**Title:** Anatoxic **Description:** Cyanobacteria are photosynthetic prokaryotes that populate many freshwater sources. Under certain conditions some strains can produce deadly toxins like Anatoxin A which contaminates the water. In our project Anatoxic, we develop a biosensor for Anatoxin A to simplify the surveillance of freshwater. We engineer E. coli to express a hybrid receptor to bind Anatoxin a and couple this to expression of a fluorescent Reporter protein. [Wiki](https://2022.igem.wiki/tuebingen)https://static.igem.org/peertube/streaming-playlists/hls/dfdcc50a-f04b-4a1a-8cb8-4a1896902e28/c176a1bb-3c10-4d39-a2c9-6a356b4daee5-master.m3u8https://video.igem.org/videos/embed/tDjEV7vSs3dURYA9Eux1w512001022022-09-02T20:22:14.869ZYES2022 Project PromotionsNOhttps://video.igem.org/w/hfxbqeHkTofyVcQxfMNiT9https://video.igem.org/lazy-static/thumbnails/2444fd97-a140-4a39-8183-9741686d79f5.jpgSeoul_Korea: Eco-friendly absorbent using pine trees: Pine-Sorb (2022) - Project Promotion [English]**Title:** Eco-friendly absorbent using pine trees: Pine-Sorb **Description:** In Korea, where the sea is on three sides, oil spills mean enormous damage and polypropylene-based oil adsorbents used to remove the spilled oil causes environmental problems. Our team Seoul_Korea is planning to develop an oil adsorbent with excellent hydrophobicity and lipophilicity using the process of spreading abandoned wood or pine trees that are discarded. Since pine trees are distributed globally, this is an effective technology for countries suffering from oil spills. [Wiki](https://2022.igem.wiki/seoul-korea)https://static.igem.org/peertube/streaming-playlists/hls/8399d8b1-c2c0-412c-981f-4555df872f7a/ba26b444-3293-47c9-be37-68588d0eefc8-master.m3u8https://video.igem.org/videos/embed/hfxbqeHkTofyVcQxfMNiT912001372022-09-02T21:24:04.599ZYES2022 Project PromotionsNOhttps://video.igem.org/w/hi7BGyhaAjgLjttrio83SShttps://video.igem.org/lazy-static/thumbnails/13766556-e402-48e8-b020-ea0157038c4d.jpgRUM-UPRM: R-Detox: A new beginning (2022) - Project Promotion [English]**Title:** R-Detox: A new beginning **Description:** The Puerto Rican island municipality of Vieques was a site of military training exercises for more than 60 years. The chemicals and explosives used increased health hazards for the local population and had a detrimental effect on biodiversity. This is the reason we have chosen to continue "R-DetoX" this year. The objective of our project is to create a genetic circuit capable of biodegrading the RDX explosive, which is present in the Anones Lagoon in Vieques. [Wiki](https://2022.igem.wiki/rum-uprm)https://static.igem.org/peertube/streaming-playlists/hls/83f5f089-9307-45e8-be71-6fbbf1c7daa6/13870d7a-43c6-442c-be3f-5481d47a407d-master.m3u8https://video.igem.org/videos/embed/hi7BGyhaAjgLjttrio83SS12001502022-09-03T02:21:15.281ZYES2022 Project PromotionsNOhttps://video.igem.org/w/p4X6RhdeTfQnc5kSuuA4sMhttps://video.igem.org/lazy-static/thumbnails/89aee81c-40ba-4555-9899-f79ce6f93bb8.jpgSogang_Korea: SynBioBot : Remote & Automated Synthetic Biology Robot (2022) - Project Promotion [...**Title:** SynBioBot : Remote & Automated Synthetic Biology Robot **Description:** Because of the pandemic situation, the entire world has been stopped. Scientists who know the solutions to overcome this problem can't go to the laboratory due to regulations. One day, Dr.Kang from Indonesia got a mail from a stranger. It was about the SynBioBot in South Korea, the Remote & Automated Synthetic Biology Robot. Through SynBioBot, he could do experiments that save the world. [Wiki](https://2022.igem.wiki/sogang-korea)https://static.igem.org/peertube/streaming-playlists/hls/bacf60aa-5009-4c89-b63a-a00741e5080d/d568c0c0-6190-4640-b166-7fd4cbd9ae4c-master.m3u8https://video.igem.org/videos/embed/p4X6RhdeTfQnc5kSuuA4sM11401452022-09-03T03:38:12.602ZYES2022 Project PromotionsNOhttps://video.igem.org/w/m8x7JzVgkRuh7JAZHpNopThttps://video.igem.org/lazy-static/thumbnails/ee7926ab-675f-4d90-900b-38fb801d3ba5.jpgEast_Coast_BioCrew: PCBusters: Here to Save the Water (2022) - Project Promotion [Russian]**Title:** PCBusters: Here to Save the Water **Description:** Polychlorinated biphenyls (PCBs) are a carcinogen that contaminates waterways due to large-scale industrial dumping. Current methods of detecting and degrading PCBs are either environmentally harmful or expensive. We are developing safe-to-use and accessible methods of detection and degradation of PCBs based on projects from the Stockholm-2020 and Chalmers-Gottenberg-2019 teams. We are genetically engineering both Rhodococcus to enhance its natural ability to degrade PCBs and using yeast to produce bioluminescence when in the presence of PCBs. We contacted the PCB division of the EPA for advice on how we could implement our project. Additionally, we reached out to professors in Maryland who worked on developing a technique to deliver PCB-degrading microbes to contaminated bodies of water. To inform the public about our work, we collaborated with other teams to educate people through classes and social media. Our system, conscious of previous work and health concerns, can mitigate the threat of PCBs. [Wiki](https://2022.igem.wiki/east-coast-biocrew)https://static.igem.org/peertube/streaming-playlists/hls/a30427d3-949f-4753-b6ca-333105ea7c01/46e16d18-761c-4b0a-82e5-2b89db9df076-master.m3u8https://video.igem.org/videos/embed/m8x7JzVgkRuh7JAZHpNopT1200202022-09-03T04:49:14.946ZYES2022 Project PromotionsNOhttps://video.igem.org/w/7ReVh38KQTLzbmMnRn3jZohttps://video.igem.org/lazy-static/thumbnails/1f321f5d-8a29-4d87-bc21-dc585ed712e2.jpgUBC-Okanagan: Life Bulb (2022) - Project Promotion [English]**Title:** Life Bulb **Description:** We can not imagine a world without artificial light. But electrical light harms the environment, generates Green House Gasses, and its inappropriate use can harm our health and severely damage ecosystems. We will engineer Synechocystis sp. PCC6803, a photosynthetic bacteria, to generate light through bioluminescent fungal genes with the hopes of creating an easily scalable, environmentally-friendly, versatile, and dim light source to help us reconcile with nature. [Wiki](https://2022.igem.wiki/ubc-okanagan)https://static.igem.org/peertube/streaming-playlists/hls/3776dab3-e4ed-42ae-b075-9894b4a84b88/4ce1e487-90fc-4ad0-a62d-d132fcef3362-master.m3u8https://video.igem.org/videos/embed/7ReVh38KQTLzbmMnRn3jZo12002052022-09-03T09:07:44.196ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4EK9GzFvH45kJa4j25FcCohttps://video.igem.org/lazy-static/thumbnails/35155bcc-2401-416c-acfa-b1daee472495.jpgConcordia-Montreal: Bioremediation of Organophosphate Pesticides (OPPs) (2022) - Project Promotio...**Title:** Bioremediation of Organophosphate Pesticides (OPPs) **Description:** Due to their toxicity and detriments to human health, some organophosphate pesticides have been banned from use in Canada. However, traces of these harmful pesticides are still found in our water. Moreover, current methods of degrading these toxic substances are costly and unsustainable. The purpose of our bioremediation project “Cyano Clean” is to use biological processes as an efficient and economic solution for the degradation of organophosphates. The genetic engineering of a cyanobacterium with an organophosphate hydrolase (opd) can give rise to the successful removal of these pesticides from the environment. Since we want to implement our novel organism in wastewater treatment plans, we designed a controlled cell death system that responds to the concentration of residual pesticides and their byproducts. This will ensure that any unforeseen effects of our genetically modified organism will be contained to avoid environmental damage. [Wiki](https://2022.igem.wiki/concordia-montreal)https://static.igem.org/peertube/streaming-playlists/hls/1db44578-6c5a-4279-9514-0515173457c2/6dac4052-bf32-4d61-a751-0d393262a6d0-master.m3u8https://video.igem.org/videos/embed/4EK9GzFvH45kJa4j25FcCo1190852022-09-03T09:33:08.654ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kyeLz1VjASJrY5EtuP3dbAhttps://video.igem.org/lazy-static/thumbnails/908e0adf-1576-4a23-9978-104a419092a9.jpgTecCCM: iMoAge (2022) - Project Promotion [English]**Warning:** **Title:** iMoAge **Description:** Have you wondered how fast are you ageing? Researchers have recently found a connection between inflammation and the ageing process. We are Tec-CCM and our project is iMoAge which aims to overcome the obstacles for researchers, health professionals and civil society to quantify and monitor the pace of aging through inflammation. [Wiki](https://2022.igem.wiki/tecccm)https://static.igem.org/peertube/streaming-playlists/hls/9e5deb97-6ed2-4b83-8d12-35678413b796/72e7eccb-ae4c-43b7-879c-7641c5179b8e-master.m3u8https://video.igem.org/videos/embed/kyeLz1VjASJrY5EtuP3dbA12001242022-09-03T09:41:21.393ZYES2022 Project PromotionsNOhttps://video.igem.org/w/3zdEHfDED8iYnSvc3puNRbhttps://video.igem.org/lazy-static/thumbnails/d630f074-c3f8-4c30-8d3b-32e5ed1de633.jpgLeiden: Bimetallic nanoparticle synthesis for Photothermal Therapy (2022) - Project Promotion [En...**Title:** Bimetallic nanoparticle synthesis for Photothermal Therapy **Description:** Yearly, over 3000 in the Netherlands, and 900,000 patients worldwide, are diagnosed with head and neck cancer. A novel, highly precise treatment for head and neck cancers is photothermal therapy. It relies on using absorbing nanoparticles that convert near infrared light to thermal energy for cancer tissue ablation. In this project, we use engineered E. coli strains to create the optimal bimetallic nanoparticles for photothermal therapy. [Wiki](https://2022.igem.wiki/leiden)https://static.igem.org/peertube/streaming-playlists/hls/14d5a0d9-363f-4a04-8239-04f4c09d3cec/72964a42-e0f4-4cba-9543-6b515ea4a4d2-master.m3u8https://video.igem.org/videos/embed/3zdEHfDED8iYnSvc3puNRb12001772022-09-03T09:52:06.314ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9TBzcdCkztgAvRGQ6GUMpihttps://video.igem.org/lazy-static/thumbnails/8e18dffc-7fb1-4953-bb70-f43388a248e4.jpgEvry_Paris-Saclay: Electricia Coli (2022) - Project Promotion [English]**Title:** Electricia Coli **Description:** According to the World Health Organization, around 10 million people died of cancer globally in 2021. Cancer remains the most life-threatening disease all over the world. Therefore, early-stage cancer detection is critical for timely intervention needed to save the patient’s life. Here we propose a system for more accurate and less expensive detection of cancer by linking together techniques of biomarker sensing and the external electron transfer through a microbial fuel cell. Consequently, we would detect an electrical signal in the presence of a cancer biomarker. Our project relies on the use of a toehold switch sensor to detect the cancer biomarker PANTR1 long non coding RNA (lncRNA), and subsequently express a downstream gene that leads to an electron flow outside the cell resulting in an electric signal. [Wiki](https://2022.igem.wiki/evry-paris-saclay)https://static.igem.org/peertube/streaming-playlists/hls/47fdf6b8-e53e-4b4c-95dd-2aa51c06de5b/10fea1b0-5f62-4ab0-8033-569947b802ed-master.m3u8https://video.igem.org/videos/embed/9TBzcdCkztgAvRGQ6GUMpi11902462022-09-03T11:58:16.535ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kfBq9bJfeGt8JgALSJxyghhttps://video.igem.org/lazy-static/thumbnails/11460efb-2b62-4730-b854-00b91ccc9b14.jpgAcademy LEARN TeaserAcademy LEARN Teaserhttps://static.igem.org/peertube/streaming-playlists/hls/9be7df93-8478-4429-92a3-7c84bf684fae/318a7470-ec1c-46f7-9e53-ed0abef03ca0-master.m3u8https://video.igem.org/videos/embed/kfBq9bJfeGt8JgALSJxygh131012022-09-09T18:15:37.583ZiGEM AcademyLEARNYESiGEM Design LeagueNOhttps://video.igem.org/w/gJrtpW3DAzvxEEANRYgnWGhttps://video.igem.org/lazy-static/thumbnails/0e527e2f-0b62-42d5-9b95-e8528f564288.jpgiGEMx Niek Savelkoul: Lessons for Life - an iGEM journeyThe CEO of Scope Biosciences shares his story from a team member, ambassador and supervisor in iGEM to founding his own business and answers audience questionshttps://static.igem.org/peertube/streaming-playlists/hls/7f66042c-ac47-47b2-a090-798dd8b56250/fe7e9289-3a80-4ca8-aeb0-18f2f3ccf10e-master.m3u8https://video.igem.org/videos/embed/gJrtpW3DAzvxEEANRYgnWG22760322022-09-12T13:17:28.149ZYESiGEM CommunityNOhttps://video.igem.org/w/k825CAHeZqviUnohELS1jHhttps://video.igem.org/lazy-static/thumbnails/b8c9a953-e641-4da6-b223-16996efb0977.jpgNYU_Abu_Dhabi: ADx logo animation (2022)NYU_Abu_Dhabi: ADx logo animation (2022)https://static.igem.org/peertube/streaming-playlists/hls/9ad881a3-f2b5-42cb-b932-dc475072e88d/1e844d2b-09a8-4b01-9ee7-e5794ded41b0-master.m3u8https://video.igem.org/videos/embed/k825CAHeZqviUnohELS1jH80212022-09-12T13:33:06.137ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/db5eJof6n91tEvpPvLmzqGhttps://video.igem.org/lazy-static/thumbnails/76f7441e-8ef6-4f35-a725-24947a5bed25.jpgPINGHE: What Is Synthetic Biology (2022) [Chinese]We were talking about what synthetic biology is, the difference between synthetic biology and traditional biology, the application of synthetic biology, what is genetic engineering, and the relationship between genetic engineering and synthetic biology. Wiki Link: https://2022.igem.wiki/pinghehttps://static.igem.org/peertube/streaming-playlists/hls/6295b66d-1348-4962-9f92-4fb5f1cbf07c/a18f1a0b-5b06-421c-9230-58f0ae9aeeb7-master.m3u8https://video.igem.org/videos/embed/db5eJof6n91tEvpPvLmzqG114082022-09-13T11:49:47.287ZSynthetic BiologyYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5YhpSm5JmyQpTpgMN5eiX8https://video.igem.org/lazy-static/thumbnails/f694cf04-dad7-4167-96d4-a35a59a0ee2e.jpgPINGHE: What Is Genetic Engineering (2022) [Chinese]We were talking about what synthetic biology is, the difference between synthetic biology and traditional biology, the application of synthetic biology, what is genetic engineering, and the relationship between genetic engineering and synthetic biology. Wiki Link: https://2022.igem.wiki/pinghehttps://static.igem.org/peertube/streaming-playlists/hls/284051d8-fcb6-4799-90a9-f663e8d7aea9/1e7fcd25-310a-47e5-99ae-c89d3356a062-master.m3u8https://video.igem.org/videos/embed/5YhpSm5JmyQpTpgMN5eiX8160032022-09-13T11:57:19.433ZGenetic EngineeringYESiGEM 2022 TeamsNOhttps://video.igem.org/w/n6pLkE3anHcRqc4zwCknUuhttps://video.igem.org/lazy-static/thumbnails/ec2959fd-56bb-4159-acce-bf0b2208ce11.jpgELTE: IntiminEGFR (2022)Presentation of a molecular model of the intimin-EGFR construct with ChimeraX1.4. https://2022.igem.wiki/eltehttps://static.igem.org/peertube/streaming-playlists/hls/aad146ad-3c76-42ab-98e8-a9659b8da490/46521d12-5ce3-438d-a99f-27b355e9757d-master.m3u8https://video.igem.org/videos/embed/n6pLkE3anHcRqc4zwCknUu701742022-09-13T18:39:27.087ZEGFRintiminmolecular modelYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vYJ27D9nWvTJAjA4ApfJuQhttps://video.igem.org/lazy-static/thumbnails/f310a666-99c5-49c6-b9d3-73ae1fce9e1e.jpgELTE: EGFRnanobody (2022)Presentation of a molecular model of EGFR-nanobody construction with ChimeraX1.4. https://2022.igem.wiki/eltehttps://static.igem.org/peertube/streaming-playlists/hls/f2c49149-11e9-4e38-8ec8-bdf7d513d610/be1f35d2-a5f7-449b-9f61-47cde129560e-master.m3u8https://video.igem.org/videos/embed/vYJ27D9nWvTJAjA4ApfJuQ701852022-09-13T18:46:25.349ZEGFRmolecular modelnanobodyYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vFzwqxVaNurJ3UpVyRqpWchttps://video.igem.org/lazy-static/thumbnails/42aacf27-0ad7-44f3-b3c8-99c2bb4c2906.jpgTec-Chihuahua: Values (2022)Aspects that build our projecthttps://static.igem.org/peertube/streaming-playlists/hls/f05fb03b-0e20-465e-8d5a-76a7367f7713/99834e5d-8e6d-4678-8cb1-112a3a2e1e36-master.m3u8https://video.igem.org/videos/embed/vFzwqxVaNurJ3UpVyRqpWc5062022-09-13T19:22:03.552ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/psxR4ewcRWAmrcGEvoR6nWhttps://video.igem.org/lazy-static/thumbnails/da6bb96d-5862-4325-8cfd-32ea97c6983c.jpgNUDT_CHINA: Designer cell-based Biomedical tattoo for monitoring glucocorticoid ... (2022) - Proj...**Title:** Designer cell-based Biomedical tattoo for monitoring glucocorticoid levels associated with mental stress **Description:** Nowadays, millions of young scientists are struggling with significant mental stress, resulting in destructive outcomes such as depression and anxiety. Here, we intend to generate a designer cell that detects blood glucocorticoids and produces a visual signal. These cells can be planted under the skin to make a biological tattoo that serves as an alarm of the potentially high-stress level. With such a tattoo, one can effectively monitor mental stress and adjust lifestyle accordingly. [Wiki](https://2022.igem.wiki/nudt-china)https://static.igem.org/peertube/streaming-playlists/hls/bdf72722-1df1-40e1-897d-84b985f32154/fb7af16f-7b06-4eb8-8f8c-022cfe4121a0-master.m3u8https://video.igem.org/videos/embed/psxR4ewcRWAmrcGEvoR6nW12002112022-09-15T07:40:07.010ZYES2022 Project PromotionsNOhttps://video.igem.org/w/s4Sey7rfbzeAqMXzVuHUT2https://video.igem.org/lazy-static/thumbnails/e2bb574a-fb36-4e5b-9201-547af86b0cc6.jpgSubCat_Shanghai: Say “goodbye” to tumor resistance (2022) - Project Promotion [English]**Title:** Say “goodbye” to tumor resistance **Description:** Glioma is the most common malignant tumor of the adult central nervous system, with high malignancy and mortality. The combination of temozolomide (TMZ) chemotherapy and radiotherapy is currently the standard first-line regimen for high-grade gliomas, but with the progress of chemotherapy, most patients will eventually develop resistance to TMZ and lead to glioma treatment failure. The results of this study provide TMZ-resistant glioma cell lines for basic and clinical research and provide potential molecular targets for reversing TMZ resistance and enhancing the effectiveness of TMZ therapy, which are of great significance for the treatment of gliomas and the improvement of patient prognosis. [Wiki](https://2022.igem.wiki/subcat-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/d317cb48-a251-4b00-b54f-e5c071693be7/67cda1fd-4e62-4454-b2dd-d9523d751e4e-master.m3u8https://video.igem.org/videos/embed/s4Sey7rfbzeAqMXzVuHUT21160352022-09-15T09:25:44.637ZGliomaTMZYES2022 Project PromotionsNOhttps://video.igem.org/w/kGt3D2mxCVqMpQXzWKw6Jdhttps://video.igem.org/lazy-static/thumbnails/8bd1eb0e-f399-4e8f-9213-4d50faf053d8.jpgSubCat_China: Probiotics with efficient heterologous expression of lipase for di... (2022) - Proj...**Title:** Probiotics with efficient heterologous expression of lipase for dietary supplement **Description:** Nowadays, many people face the problem of incomplete digestion of fats in food, which can lead to health problems such as malnutrition. In our project, we used genetic engineering techniques to create bacteria that overexpress lipase. Lipase is an enzyme that helps digest fats in the body’s small intestine, which means that it may provide some relief from this health problem. We performed experiments to test enzyme activity under different conditions, helping to confirm the possibility of incorporating this technology into human practice. In the future, our project could be a dietary supplement used in a probiotic drink to benefit people who help digest fat. [Wiki](https://2022.igem.wiki/subcat-china)https://static.igem.org/peertube/streaming-playlists/hls/9f840d7e-aef2-4211-9d06-7f270c5fd724/e6c0d2c7-a558-47bb-ba35-283344585f4e-master.m3u8https://video.igem.org/videos/embed/kGt3D2mxCVqMpQXzWKw6Jd1190912022-09-15T09:31:33.370ZLipaseMalnutritionYES2022 Project PromotionsNOhttps://video.igem.org/w/kpejd9mJQSq1xHKiZRS3Bkhttps://video.igem.org/lazy-static/thumbnails/d79631d7-63a6-49de-97a3-fe646e421861.jpgNEU_CHINA: RTAC, Ready for cancer attack (2022) - Project Promotion [English]**Title:** RTAC, Ready for cancer attack **Description:** We have designed a multi-cancer-targeted protein called RTAC (Rspo-Targeting Anti-cancer Chimeric protein). When we were considering how to deliver our medicine flexibly according to the concentration and occurrence of tumor cells, yeast came to our sight. Then we turned to yeast for help and he was willing to help us. Here is the story behind. [Wiki](https://2022.igem.wiki/neu-china)https://static.igem.org/peertube/streaming-playlists/hls/9d1bf23e-7cf6-4967-84ef-40df1fa42b89/69c0204d-5eb8-472b-80ad-e2626a2b0655-master.m3u8https://video.igem.org/videos/embed/kpejd9mJQSq1xHKiZRS3Bk940922022-09-15T09:32:46.534ZYeastTherapeuticsTargetedMedecineCancerYES2022 Project PromotionsNOhttps://video.igem.org/w/c9oKfnGEwwXfvpWRbKaFXEhttps://video.igem.org/lazy-static/thumbnails/5c54cc45-9833-4dc5-8661-440912aed6b9.jpgNanjing_HS: Diabetes Drug Screening - GK (2022) - Project Promotion [English]**Title:** Diabetes Drug Screening - GK **Description:** Nowadays, there are a large number of patients with type 2 diabetes in the world, and the discovery of new anti-type 2 diabetes drugs is imminent. Glucokinase (GK) is distributed in the pancreas, liver, brain and intestine, and has the effect of regulating blood sugar balance. In this project, we will construct a prokaryotic expression plasmid of human GK, purify the GK protein, establish an in vitro human GK activity detection platform, screen for drugs with GK agonistic activity, and test them at the cellular level to enhance glucose-stimulating insulin secretion and protect pancreatic islets, so as to contribute to the treatment of type 2 diabetes. [Wiki](https://2022.igem.wiki/nanjing-hs)https://static.igem.org/peertube/streaming-playlists/hls/5a407e30-681f-49de-8f63-042bc1fd44b0/3872f11c-b7bc-4ba7-a398-0d01921e39d6-master.m3u8https://video.igem.org/videos/embed/c9oKfnGEwwXfvpWRbKaFXE1200632022-09-15T09:44:43.193ZGKType2DiabetesYES2022 Project PromotionsNOhttps://video.igem.org/w/1tSSG1Q6eUnnNTHAoKt8Tihttps://video.igem.org/lazy-static/thumbnails/a7b16c37-4e53-499c-ba39-6b0877675258.jpgZJUT-China: The legion of dental protection: Oral guardians for targeted detecti... (2022) - Proj...**Title:** The legion of dental protection: Oral guardians for targeted detection and elimination of Streptococcus mutans **Description:** Oral problems are widespread among people of different ages. Most oral problems can be preventable and treated in their early stages, especially for the universal tooth decay deduced by Streptococcus mutans. This project is seeking a low-cost and convenient way to prevent oral diseases by developing oral probiotics based on GRAS strain-Bacillus subtilis. With introduction of quorum sensing system from S. mutans, the switch of our designed genetic circuits would be triggered by sensing competence-stimulating peptide (CSP, quorum sensing signaling molecule with concentration positively correlated with the number of S. mutans).Our Healthy Teeth Legion project designed multiple genetic circuits to achieve the purpose of detecting oral hygiene and preventing dental caries, as well as achieving convenient feedback of test results. For safety reasons, termination switch has been added accordingly. With combination of scientific research, computer modeling and extensive experimental data, more reliable and convenient Heathy Teeth Legion would be developed. [Wiki](https://2022.igem.wiki/zjut-china)https://static.igem.org/peertube/streaming-playlists/hls/03e46f19-9610-4047-aec0-fe7b3a8b3543/2a2a68a6-7886-4d0a-86f4-1557fa418e12-master.m3u8https://video.igem.org/videos/embed/1tSSG1Q6eUnnNTHAoKt8Ti12001252022-09-15T11:26:29.149ZYES2022 Project PromotionsNOhttps://video.igem.org/w/eAFbwAiUfYNGgX8d69dULihttps://video.igem.org/lazy-static/thumbnails/359ae274-fec6-4400-9813-4682cd9d5ed1.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [Bosnian]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/6e1e3cba-9221-40f3-af5a-212846e0a559/ea288f43-e615-449f-949a-840862ba71ce-master.m3u8https://video.igem.org/videos/embed/eAFbwAiUfYNGgX8d69dULi120032022-09-15T12:33:28.024ZYES2022 Project PromotionsNOhttps://video.igem.org/w/rmw5cuwcwT6Zu58vBhiWBthttps://video.igem.org/lazy-static/thumbnails/6d39139c-41c2-4d52-ae0a-231dfddb8d55.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [Chinese]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/cd51dfe9-f05f-4e7d-87e5-4baace6566e9/b3c116ab-d239-4e60-bc5f-3083376517b7-master.m3u8https://video.igem.org/videos/embed/rmw5cuwcwT6Zu58vBhiWBt1200192022-09-15T12:40:50.187ZYES2022 Project PromotionsNOhttps://video.igem.org/w/23AxGy1HaRv6ouNxubN9kzhttps://video.igem.org/lazy-static/thumbnails/ea0a7cb2-1998-4b68-a3f5-d1e9cd25ac9a.jpgBGU_Israel: A New hope is in town (2022) - Project Promotion [English]**Title:** A New hope is in town **Description:** No abstract [Wiki](https://2022.igem.wiki/bgu-israel)https://static.igem.org/peertube/streaming-playlists/hls/0875ea90-062d-459a-9d0d-d32e800a099f/fc39f999-0cdd-4d43-99e1-3a5fe4c6c139-master.m3u8https://video.igem.org/videos/embed/23AxGy1HaRv6ouNxubN9kz1130222022-09-15T12:41:17.214ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9hi29KEmAvhikPLAYktSRGhttps://video.igem.org/lazy-static/thumbnails/bc5d7999-8c15-4a72-924b-f1f94309dc37.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [Finnish]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/430f7f9a-7c2f-4cd6-9587-bbc8d2c60532/b810d4c8-30f6-41ae-98f5-4fb80405fb07-master.m3u8https://video.igem.org/videos/embed/9hi29KEmAvhikPLAYktSRG120062022-09-15T12:42:51.655ZYES2022 Project PromotionsNOhttps://video.igem.org/w/oBcA81ufxAnXXY38ikd6E4https://video.igem.org/lazy-static/thumbnails/c11c3572-6022-4662-8bac-9e34e7cdc6cb.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [French]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/b7133958-8bf6-4836-83b0-088f286dbec3/2c0304b2-d484-4a21-90f9-13499fe78a43-master.m3u8https://video.igem.org/videos/embed/oBcA81ufxAnXXY38ikd6E4120072022-09-15T12:54:10.568ZYES2022 Project PromotionsNOhttps://video.igem.org/w/kRX67Zuev4fzVf8BJ1BLrjhttps://video.igem.org/lazy-static/thumbnails/2888d1fa-20e0-4e72-a3f5-c476a3744ce4.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [Greek]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/a0d70754-68d1-4fc2-aa2f-9ced247c1fe4/4216c12d-2e19-45e8-9a0e-c4e648c82715-master.m3u8https://video.igem.org/videos/embed/kRX67Zuev4fzVf8BJ1BLrj120072022-09-15T12:55:47.483ZYES2022 Project PromotionsNOhttps://video.igem.org/w/esg7r32D6dWjNssTnQ9XXphttps://video.igem.org/lazy-static/thumbnails/b641f4ee-e13f-46c1-a453-029e8f55763c.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [Hindi]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/6cf173f8-ea07-4636-a90b-a318eada5769/177a06bc-9456-4669-a4f7-2fb9cfd7839f-master.m3u8https://video.igem.org/videos/embed/esg7r32D6dWjNssTnQ9XXp1200112022-09-15T12:59:42.734ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tXuar35yoJY81Rf6uWmAeohttps://video.igem.org/lazy-static/thumbnails/fdcabfa7-8c5f-4eb7-96ca-b43365c6d82c.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [Russian]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/e26601ca-9968-4907-8c5a-bed1719d2b10/7899d800-0209-488f-b30b-46021633896c-master.m3u8https://video.igem.org/videos/embed/tXuar35yoJY81Rf6uWmAeo120082022-09-15T13:01:14.623ZYES2022 Project PromotionsNOhttps://video.igem.org/w/jnMuaWMDvyjrKXev1nA8CNhttps://video.igem.org/lazy-static/thumbnails/e9348a67-a404-4e46-9f74-57888f770efa.jpgStockholm: BIG IF? Big-Yes!!! (2022) - Project Promotion [Tamil]**Title:** BIG IF? Big-Yes!!! **Description:** Vitamin B12 is an essential nutrient that supports many functions within the body. The main reason for B12 deficiency, also called pernicious anemia, is autoimmune antibodies that cause malfunctioning gastric intrinsic factors (IF). These are proteins that are responsible for the uptake of the vitamin. The prescription of supplements is the only known treatment for B12 deficiency - until now. Our engineered IF will be a sufficient oral treatment to improve the life quality of the patients. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/94cf2588-b9fb-40d0-ab9b-7ec2b20096b2/7f35a6b6-5844-4a0f-a942-4cd74a517f6e-master.m3u8https://video.igem.org/videos/embed/jnMuaWMDvyjrKXev1nA8CN1200272022-09-15T13:02:46.232ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ciDaHQd3vFhiCY52Euaysuhttps://video.igem.org/lazy-static/thumbnails/c7ce0cc1-9257-4dc3-9c20-ba043f5b296f.jpgTJUSLS_China: Proteinase K-The Leading Actor in Nucleic Acid Extraction (2022) - Project Promotio...**Title:** Proteinase K-The Leading Actor in Nucleic Acid Extraction **Description:** Proteinase K is an important member of viral sampling solution in nucleic acid extraction, which can lyse virus to release nucleic acid, eliminate RNase to prevent viral RNA degradation.However, the ability of proteinase K is still insufficient.There is a group of people working on the modification of proteinase K in order to improve its thermal stability at room temperature to reduce the cost of PCR tests and have a more efficient nucleic acid testing process. [Wiki](https://2022.igem.wiki/tjusls-china)https://static.igem.org/peertube/streaming-playlists/hls/5b8b131f-a785-41b9-b733-0f28150dfda8/135433ad-59a1-4e6e-b59f-6272c0e079bc-master.m3u8https://video.igem.org/videos/embed/ciDaHQd3vFhiCY52Euaysu12001322022-09-15T13:29:08.288ZYES2022 Project PromotionsNOhttps://video.igem.org/w/dFTJsAoiLMPaaDWv6zsTTzhttps://video.igem.org/lazy-static/thumbnails/a89e06ad-2d5f-41d7-abee-513688fac2d3.jpgCU_Egypt: Memory-ذكري (2022) - Project Promotion [English]**Title:** Memory-ذكري **Description:** Novel treatment for the most common type of Dementia which is Alzheimer's disease, the latter is characterized by the presence of vast aggregates of NFT (Neurofibrillary Tangles) of Tau protein and amyloid-beta plaques which are the main cause of the disease progression. Whereas, current medications do not treat the disease entirely but reduce the symptoms and most of them have no effect in the late stage of AD. The proposed drug aims to work in both stages early and late. In the early stage, the dysfunction in the brain starts to appear in the entorhinal cortex and hippocampus region by the formation of aggregates of phosphorylated proteins and the dysfunction of the ubiquitin-proteasomal system, our solution is to reactivate the dysfunctional system to degrade the accumulations of Tau protein to recover the healthy brain again. In the late stages, this accumulation of Tau, and amyloid-beta proteins become in the matrix of the brain after disintegrating the microtubules by this aggregation, therefore our cure will be a switchable one based on a protease system to degrade these plaques to avoid the dangerous effects of this accumulation. [Wiki](https://2022.igem.wiki/cu-egypt)https://static.igem.org/peertube/streaming-playlists/hls/66bf8d4c-ddfc-4252-bc92-8327a21bf45b/c38ea8e9-99cd-48a8-92f0-e79ec5e03cb3-master.m3u8https://video.igem.org/videos/embed/dFTJsAoiLMPaaDWv6zsTTz12001962022-09-15T14:17:19.169ZYES2022 Project PromotionsNOhttps://video.igem.org/w/aJPnmTeEFxxxX2X63GKZphhttps://video.igem.org/lazy-static/thumbnails/8df6f0d9-ad2e-4aa3-8c17-5ab83a3977f2.jpgTHINKER_CHINA: Your almighty detective (2022) - Project Promotion [English]**Title:** Your almighty detective **Description:** The full potential of biosensing devices is hampered by their high analytical costs, due to the need for expensive apparatus. Thinker_China is creating a revolutionary low-cost detection system used in surveillance and environmental monitoring applications: SRRz gene inserted in the recombinant plasmid leads to an observable chromatic reaction, allowing efficient detection of specific chemical compounds and biological analytes, which will be promising for scientists to utilize. [Wiki](https://2022.igem.wiki/thinker-china)https://static.igem.org/peertube/streaming-playlists/hls/4edcad92-91a7-434b-a29d-70dd5852a882/295fc8db-f762-41b2-9379-2b78a40b92bd-master.m3u8https://video.igem.org/videos/embed/aJPnmTeEFxxxX2X63GKZph1200832022-09-15T14:33:03.278ZCheapDetectionEffectiveYES2022 Project PromotionsNOhttps://video.igem.org/w/2oNC72iiUNkmNaKhsNRLA9https://video.igem.org/lazy-static/thumbnails/a27b036b-27a3-4645-8b6a-1eb5466c3104.jpgCU_Egypt: Memory-ذكري (2022) - Project Promotion [Arabic]**Title:** Memory-ذكري **Description:** Novel treatment for the most common type of Dementia which is Alzheimer's disease, the latter is characterized by the presence of vast aggregates of NFT (Neurofibrillary Tangles) of Tau protein and amyloid-beta plaques which are the main cause of the disease progression. Whereas, current medications do not treat the disease entirely but reduce the symptoms and most of them have no effect in the late stage of AD. The proposed drug aims to work in both stages early and late. In the early stage, the dysfunction in the brain starts to appear in the entorhinal cortex and hippocampus region by the formation of aggregates of phosphorylated proteins and the dysfunction of the ubiquitin-proteasomal system, our solution is to reactivate the dysfunctional system to degrade the accumulations of Tau protein to recover the healthy brain again. In the late stages, this accumulation of Tau, and amyloid-beta proteins become in the matrix of the brain after disintegrating the microtubules by this aggregation, therefore our cure will be a switchable one based on a protease system to degrade these plaques to avoid the dangerous effects of this accumulation. [Wiki](https://2022.igem.wiki/cu-egypt)https://static.igem.org/peertube/streaming-playlists/hls/0b483bd5-57a2-48c9-b43b-996bf8933b34/bb387ed5-65d8-467e-8d9c-b3208744112d-master.m3u8https://video.igem.org/videos/embed/2oNC72iiUNkmNaKhsNRLA91200372022-09-15T14:34:05.095ZYES2022 Project PromotionsNOhttps://video.igem.org/w/2F38cPrZAhvDLMkNdbpS3mhttps://video.igem.org/lazy-static/thumbnails/d28b8cd3-d991-4627-839c-37ad84bc5e6d.jpgSUSTech_Shenzhen: Journey With Tyrian Purple (2022) - Project Promotion [English]**Title:** Journey With Tyrian Purple **Description:** SUSTech_Shenzhen 2022 uses synthetic biology and directed evolution to optimize the production of tyrian purple, wishing world a colorful future. [Wiki](https://2022.igem.wiki/sustech-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/0d8c746c-3a9e-477b-9dcf-295436755948/6998e488-d464-4274-a1bd-f286cf24ced4-master.m3u8https://video.igem.org/videos/embed/2F38cPrZAhvDLMkNdbpS3m1080932022-09-15T14:51:44.332ZYES2022 Project PromotionsNOhttps://video.igem.org/w/wXs2Ja4AkPSvHoLtukUYXahttps://video.igem.org/lazy-static/thumbnails/4c92af1e-fe57-4085-8c02-3a984665974d.jpgCU_Egypt: Memory-ذكري (2022) - Project Promotion [French]**Title:** Memory-ذكري **Description:** Novel treatment for the most common type of Dementia which is Alzheimer's disease, the latter is characterized by the presence of vast aggregates of NFT (Neurofibrillary Tangles) of Tau protein and amyloid-beta plaques which are the main cause of the disease progression. Whereas, current medications do not treat the disease entirely but reduce the symptoms and most of them have no effect in the late stage of AD. The proposed drug aims to work in both stages early and late. In the early stage, the dysfunction in the brain starts to appear in the entorhinal cortex and hippocampus region by the formation of aggregates of phosphorylated proteins and the dysfunction of the ubiquitin-proteasomal system, our solution is to reactivate the dysfunctional system to degrade the accumulations of Tau protein to recover the healthy brain again. In the late stages, this accumulation of Tau, and amyloid-beta proteins become in the matrix of the brain after disintegrating the microtubules by this aggregation, therefore our cure will be a switchable one based on a protease system to degrade these plaques to avoid the dangerous effects of this accumulation. [Wiki](https://2022.igem.wiki/cu-egypt)https://static.igem.org/peertube/streaming-playlists/hls/fab01bcb-0fa0-4898-9e77-46f2b65c5cef/d2f4ccdb-9235-45d2-9a41-2dee10ffac0f-master.m3u8https://video.igem.org/videos/embed/wXs2Ja4AkPSvHoLtukUYXa1190132022-09-15T14:56:27.630ZYES2022 Project PromotionsNOhttps://video.igem.org/w/wnMdu6GM1KtogFequytqs3https://video.igem.org/lazy-static/thumbnails/78302b8a-7886-4a00-bb25-fd62b8d14aeb.jpgCU_Egypt: Memory-ذكري (2022) - Project Promotion [German]**Title:** Memory-ذكري **Description:** Novel treatment for the most common type of Dementia which is Alzheimer's disease, the latter is characterized by the presence of vast aggregates of NFT (Neurofibrillary Tangles) of Tau protein and amyloid-beta plaques which are the main cause of the disease progression. Whereas, current medications do not treat the disease entirely but reduce the symptoms and most of them have no effect in the late stage of AD. The proposed drug aims to work in both stages early and late. In the early stage, the dysfunction in the brain starts to appear in the entorhinal cortex and hippocampus region by the formation of aggregates of phosphorylated proteins and the dysfunction of the ubiquitin-proteasomal system, our solution is to reactivate the dysfunctional system to degrade the accumulations of Tau protein to recover the healthy brain again. In the late stages, this accumulation of Tau, and amyloid-beta proteins become in the matrix of the brain after disintegrating the microtubules by this aggregation, therefore our cure will be a switchable one based on a protease system to degrade these plaques to avoid the dangerous effects of this accumulation. [Wiki](https://2022.igem.wiki/cu-egypt)https://static.igem.org/peertube/streaming-playlists/hls/f5fca4d3-d0dc-483a-8692-c846295a4e7e/2c6360e7-1bc2-4594-b41e-41702d8a862e-master.m3u8https://video.igem.org/videos/embed/wnMdu6GM1KtogFequytqs31200142022-09-15T15:01:01.932ZYES2022 Project PromotionsNOhttps://video.igem.org/w/xATGCzTswz2vSrWowghdk3https://video.igem.org/lazy-static/thumbnails/fb3e5181-b9f7-4dbf-a497-a46a3af8d17b.jpgCU_Egypt: Memory-ذكري (2022) - Project Promotion [Portuguese]**Title:** Memory-ذكري **Description:** Novel treatment for the most common type of Dementia which is Alzheimer's disease, the latter is characterized by the presence of vast aggregates of NFT (Neurofibrillary Tangles) of Tau protein and amyloid-beta plaques which are the main cause of the disease progression. Whereas, current medications do not treat the disease entirely but reduce the symptoms and most of them have no effect in the late stage of AD. The proposed drug aims to work in both stages early and late. In the early stage, the dysfunction in the brain starts to appear in the entorhinal cortex and hippocampus region by the formation of aggregates of phosphorylated proteins and the dysfunction of the ubiquitin-proteasomal system, our solution is to reactivate the dysfunctional system to degrade the accumulations of Tau protein to recover the healthy brain again. In the late stages, this accumulation of Tau, and amyloid-beta proteins become in the matrix of the brain after disintegrating the microtubules by this aggregation, therefore our cure will be a switchable one based on a protease system to degrade these plaques to avoid the dangerous effects of this accumulation. [Wiki](https://2022.igem.wiki/cu-egypt)https://static.igem.org/peertube/streaming-playlists/hls/ffea72be-c7d5-497c-95eb-91d364810ab0/5e78e85a-65be-45e0-b9c1-a477a5355254-master.m3u8https://video.igem.org/videos/embed/xATGCzTswz2vSrWowghdk31200322022-09-15T15:06:12.141ZYES2022 Project PromotionsNOhttps://video.igem.org/w/sHcNxaE7mhHgJgoe1bNHvahttps://video.igem.org/lazy-static/thumbnails/473a0c6a-53fc-4bd2-9396-af32eb034b28.jpgPatras: Main Video (2022) [English]This is the main video for the home page of Patras 2022 Wiki Page. https://2022.igem.wiki/patrashttps://static.igem.org/peertube/streaming-playlists/hls/d84e5f89-df77-4c22-9f90-2d396810e66f/7ec36ccf-0f59-46e6-bd60-33ab60a51022-master.m3u8https://video.igem.org/videos/embed/sHcNxaE7mhHgJgoe1bNHva100122022-09-15T16:03:14.845ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/onhJQBXJXZQiJMPkYuWPg2https://video.igem.org/lazy-static/thumbnails/4096c977-9d20-4d59-a8d9-cbbdcd0753aa.jpgPatras: Sampling Process (2022)Sampling Process - video for wiki home page https://2022.igem.wiki/patrashttps://static.igem.org/peertube/streaming-playlists/hls/b521fc36-eaa5-4387-880c-d14d6c80a373/96eb3214-13ce-4d7e-8b34-fa119a093eb4-master.m3u8https://video.igem.org/videos/embed/onhJQBXJXZQiJMPkYuWPg230152022-09-15T16:08:35.118ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/59hoQ29XGr7stKBmMyXRZGhttps://video.igem.org/lazy-static/thumbnails/d8f902f9-7eb8-4cc6-920b-dae761c03a58.jpgIISER-Tirupati_India: APTASTELES: A novel diagnostic kit for Polycystic Ovarian ... (2022) - Proj...**Warning:** The videography is only meant for descriptive purposes and does not imply the actual symptoms. **Title:** APTASTELES: A novel diagnostic kit for Polycystic Ovarian Syndrome(PCOS) **Description:** Team IISER Tirupati proposes a diagnostic kit, “APTASTELES”, for Polycystic Ovarian Syndrome. Lack of proper diagnosis poses a problem while finding a cure for this syndrome, due to which many people across the globe remain undiagnosed. The kit is based on light-up aptamers, which are short oligonucleotide sequences that bind to biomolecules( specific biomarkers in the blood) with high specificity producing a fluorescence readout which can then be converted to a digital signal, by virtue of which a patient can be confirmed for this syndrome. [Wiki](https://2022.igem.wiki/iiser-tirupati-india)https://static.igem.org/peertube/streaming-playlists/hls/218c9b92-9942-4103-a729-fa938c907c2e/7f3cebeb-45da-46c4-ae91-d43981b29d42-master.m3u8https://video.igem.org/videos/embed/59hoQ29XGr7stKBmMyXRZG12001822022-09-15T20:46:15.299ZYES2022 Project PromotionsNOhttps://video.igem.org/w/aMCHKsDsANFxJwrZzwcpzhhttps://video.igem.org/lazy-static/thumbnails/8ce5df5c-5d00-4e42-8476-d6f22528fb47.jpgUIncheon: Microalgae bacteria consortia based biocontainment (2022) - Project Promotion [English]**Title:** Microalgae bacteria consortia based biocontainment **Description:** Our team proposes a new system in which a genetically engineered microalgae–bacteria consortia system can be used for wastewater treatment. The reason why genetically engineered microalgae are not being used despite their excellent performance in wastewater treatment is the risk of leakage. To solve this problem, we designed a biocontainment 'switch' in our consortia system, thereby greatly reducing the risk of GMO leakage. We hope our system to be the basis for the future use of genetically engineered microalgae for wastewater treatment. [Wiki](https://2022.igem.wiki/uincheon)https://static.igem.org/peertube/streaming-playlists/hls/4f4158d3-b28a-4ebf-b3b5-b434b39947be/75c086d5-4e4e-416b-8ac5-922d3a7669e1-master.m3u8https://video.igem.org/videos/embed/aMCHKsDsANFxJwrZzwcpzh11702322022-09-16T00:16:29.903ZYES2022 Project PromotionsNOhttps://video.igem.org/w/bGrsFoCa6DvMLRjBYtjXvAhttps://video.igem.org/lazy-static/thumbnails/07e487a6-f45d-4e3d-876b-c26382ca7cf3.jpgTongji_Software: Anti-Protein: Make CRISPR System Great Again (2022) - Project Promotion [English]**Title:** Anti-Protein: Make CRISPR System Great Again **Description:** Go discover a protein-like CRISPR system regulator. [Wiki](https://2022.igem.wiki/tongji-software)https://static.igem.org/peertube/streaming-playlists/hls/56a0d3e2-646b-42ed-8f53-dbb5c43678b0/5993bd0b-3879-49c3-aad9-faf78d9897dc-master.m3u8https://video.igem.org/videos/embed/bGrsFoCa6DvMLRjBYtjXvA12001182022-09-16T01:31:17.147ZYES2022 Project PromotionsNOhttps://video.igem.org/w/uFH5FLkjAN29im9wKvcUvihttps://video.igem.org/lazy-static/thumbnails/08ca54e3-add0-4d8b-ba54-b7de096f37f9.jpgHarvard: Computationally-Aided Rapid Protein Engineering (2022) - Project Promotion [English]**Title:** Computationally-Aided Rapid Protein Engineering **Description:** Our project streamlines the process of designing receptors to recognize disease biomarkers. We developed a computational algorithm based on evolutionary data that predicts a set of targeted mutations. Using the recently developed AlphaFold protein structure prediction software, our pipeline models the receptor-biomarker binding and subsequently tests different targeted mutations to computationally optimize this binding. [Wiki](https://2022.igem.wiki/harvard)https://static.igem.org/peertube/streaming-playlists/hls/e84b34d9-7d83-4e5c-adb6-7fc90641f3db/4f22629a-dff6-469d-a24d-50c4b7138506-master.m3u8https://video.igem.org/videos/embed/uFH5FLkjAN29im9wKvcUvi11803842022-09-16T01:57:01.750ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nHp5tkMr7bm5LZdpEPv3Uhhttps://video.igem.org/lazy-static/thumbnails/dc17b322-abfc-469f-8858-85735c240258.jpgGXU-China: Blue-green light-regulated sewage treatment bacterium preparation bas... (2022) - Proj...**Title:** Blue-green light-regulated sewage treatment bacterium preparation based on Bacillus subtilis **Description:** Our project aims to modify Bacillus subtilis by building a molecular switch in Bacillus subtilis which expresses a large number of nitrogen-related enzymes under blue light irradiation to control the total nitrogen content in water with synthetic biological way. We hope it can decompose nitrogen-containing organic matter and avoid eutrophication of water bodies. On the other hand ,we design the suicide mechanism under green light irradiation causing the death of the strain which could significantly reduce the cost of biosafety disposal. By monitoring and analysis of temperature, dissolved oxygen, nitrogen salt concentration and other indicators in the water body with biosensors and mathematical modeling, we hope to make a photo-regulated bacterium preparation that is green and environmentally friendly with less repeated addition, a strong sewage treatment effect and adjustment of its concentration in real time. [Wiki](https://2022.igem.wiki/gxu-china)https://static.igem.org/peertube/streaming-playlists/hls/afd7a0d1-4d0e-4706-9ebe-e31f85d04718/a5c98be0-a68e-4c9c-aa1c-ed8c1c8d2a92-master.m3u8https://video.igem.org/videos/embed/nHp5tkMr7bm5LZdpEPv3Uh11901382022-09-16T01:59:11.167ZEnvironmentYES2022 Project PromotionsNOhttps://video.igem.org/w/qzvG1iGHxcsvWJ211HbfvDhttps://video.igem.org/lazy-static/thumbnails/3e814271-361d-4084-a34f-7458b70e83eb.jpgXHD-Wuhan-China: An advanced copper sensor (2022) - Project Promotion [English]**Title:** An advanced copper sensor **Description:** We are the teenagers who devote ourselves to protect the environment. For this, we do our best and design our project and have the successful experiment. Copper sensor is an application of MFC. It can provide a better method to detect the water pollution by copper ions. So what is it? Let us watch it! [Wiki](https://2022.igem.wiki/xhd-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/c7092b51-1165-4e44-8987-d612cbc4004f/d643d44e-d6b0-43bc-9388-887e758f4cc4-master.m3u8https://video.igem.org/videos/embed/qzvG1iGHxcsvWJ211HbfvD1200472022-09-16T03:01:42.682ZYES2022 Project PromotionsNOhttps://video.igem.org/w/ijMUg49CBNbrRP4XJkDkmFhttps://video.igem.org/lazy-static/thumbnails/5640fb99-b475-4976-910f-3196a52a7cf7.jpgUSC_Dornsife: Toxi-Gone (2022) - Project Promotion [English]**Title:** Toxi-Gone **Description:** No abstract [Wiki](https://2022.igem.wiki/usc-dornsife)https://static.igem.org/peertube/streaming-playlists/hls/8c4b0857-fe64-49cf-8bba-318090703ed3/05f1829e-df71-4d49-981e-9555cea488a2-master.m3u8https://video.igem.org/videos/embed/ijMUg49CBNbrRP4XJkDkmF1180692022-09-16T03:12:50.959ZYES2022 Project PromotionsNOhttps://video.igem.org/w/vh9yeM9rizooY9Q8UyxuW6https://video.igem.org/lazy-static/thumbnails/23bf6803-7cdd-492e-848c-9901a5699d36.jpgTianjin: Micro Nuwa: A multi-target editor for DNA information storage (2022) - Project Promotion...**Title:** Micro Nuwa: A multi-target editor for DNA information storage **Description:** Our project aims to accelerate the practical application of DNA storage technology. The Micro Nuwa editor was brought into existence by our team for the purpose. With the assistance of multi-target technique, she is capable of modifying information which has been stored in DNA sequences, and eventually satisfy our needs of changing information in DNA storage. [Wiki](https://2022.igem.wiki/tianjin)https://static.igem.org/peertube/streaming-playlists/hls/ed1a31b5-322f-46cf-b8c6-0d3718c28149/71f70fee-d8d3-452d-8be4-bb10e88c9add-master.m3u8https://video.igem.org/videos/embed/vh9yeM9rizooY9Q8UyxuW611001602022-09-16T03:21:01.325ZYES2022 Project PromotionsNOhttps://video.igem.org/w/hcnzyEQsZFW2My9d5Nf9PQhttps://video.igem.org/lazy-static/thumbnails/36f34b3b-463c-4ab3-8100-9b6ae093f677.jpgRS_United_China: Melabios: A New Friendly Way to Increase Melatonin Production f... (2022) - Proj...**Title:** Melabios: A New Friendly Way to Increase Melatonin Production from Plants **Description:** The number of people who have insomnia keeps increasing for many reasons. Taking melatonin, a natural hormone produced in the pineal gland of our brains will affect one’s sleeping cycle. Our project aims to develop an environmental-friendly and natural way to synthesize melatonin. Melatonin can be found in plants. However, the yield is relatively small. And what we try to improve is the yield. We first extract COMT DNA, related to melatonin production, from aspen, run gel electrophoresis to test its purity, and then amplify it using polymerase chain reaction. Then, we transformed our target DNA into two different carriers for storage and expression and transferred them into E.coli. Finally, we transformed extracted plasmid into agrobacteria to infect aspen, over-expressing our target DNA, therefore increasing productivity. [Wiki](https://2022.igem.wiki/rs-united-china)https://static.igem.org/peertube/streaming-playlists/hls/8328b2c7-db02-4820-ba27-348a0ed16686/bc8f9548-de83-4d22-a698-1bf345650680-master.m3u8https://video.igem.org/videos/embed/hcnzyEQsZFW2My9d5Nf9PQ1200962022-09-16T08:29:51.657ZYES2022 Project PromotionsNOhttps://video.igem.org/w/75Wx9o3haSiCbzyoGJtee2https://video.igem.org/lazy-static/thumbnails/a499221b-3ea9-424a-92e4-3f5a48f53874.jpgCityU_HongKong: Development of novel anticancer drug candidates using synthetic ... (2022) - Proj...**Title:** Development of novel anticancer drug candidates using synthetic biology for improved fungal natural product biosynthesis **Description:** The goal of CityU team “SeCure” is to expand the chemical space of fungal tetra-hydro-xanthone dimers and enhance their anticancer activity. By constructing artificial biosynthetic pathways with synthetic biology we hypothesized that bioactive gene clusters from other fungal species can be introduced into Aspergillus Oryzae and produce several active biological substances. Subsequently verifying the in-vivo activity and toxicity of these novel compounds in mice. Team SeCure: Cure disease- Secure generations! [Wiki](https://2022.igem.wiki/cityu-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/31476aa9-324b-4cfc-899d-872b450d6c1f/dea9f31a-8c1b-4a5e-be98-6d357fefa22e-master.m3u8https://video.igem.org/videos/embed/75Wx9o3haSiCbzyoGJtee212002422022-09-16T09:10:24.799ZYES2022 Project PromotionsNOhttps://video.igem.org/w/wX9671J7cPmwk1HxTMeukKhttps://video.igem.org/lazy-static/thumbnails/868bb3ce-56df-40a4-bc97-5150417e451b.jpgAshesiGhana: Design of a Biosensor for Gold Prospecting in Mining (2022) - Project Promotion [Eng...**Title:** Design of a Biosensor for Gold Prospecting in Mining **Description:** Our project seeks to reduce environmental degradation, cost, and time, associated with mining - by developing a geophysical method based on synthetic biology. We're developing a multifunctional biosensor. By leveraging the functionality of the golTSB operon, the ARS operon, and the Ferric uptake regulator. We engineer 3 strains of E coli bacteria, that will detect gold, arsenic, and iron. The bio indicators from these bacteria give explorers an idea of gold prospects on a piece of land. Finally, we put all components within a stake, which is simply plunged into the ground. [Wiki](https://2022.igem.wiki/ashesighana)https://static.igem.org/peertube/streaming-playlists/hls/faa50d32-971c-41d7-8ab2-4959049de961/ab60dc59-07ce-47f1-806d-86a3781d905c-master.m3u8https://video.igem.org/videos/embed/wX9671J7cPmwk1HxTMeukK12003692022-09-16T11:30:42.708ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8n5xUJWAMSaN7JpTnJTdrkhttps://video.igem.org/lazy-static/thumbnails/8ce1f48d-a191-4f29-95b5-87075309630d.jpgWrightState: Deconta-Mn-ate (2022) - Project Promotion [English]**Title:** Deconta-Mn-ate **Description:** Our goal is to engineer bacteria to sense the presence of manganese ions in water. Our plasmid has a manganese sensitive promoter and riboswitch that would drive expression of green fluorescent protein when manganese is detected in a sample. We believe this technology will enable people to test their own water without the use of a lab or expensive equipment. [Wiki](https://2022.igem.wiki/wrightstate)https://static.igem.org/peertube/streaming-playlists/hls/3ba164d8-5651-410d-afec-c42be3661a65/3c0b2541-89bd-42d4-aa04-e7d571c749d4-master.m3u8https://video.igem.org/videos/embed/8n5xUJWAMSaN7JpTnJTdrk1190712022-09-16T13:08:35.887ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4kmXsb6yCW5Zce98UFoswxhttps://video.igem.org/lazy-static/thumbnails/c4c3f60e-8555-4550-bc5d-017da7b66e62.jpgLethbridge_HS: Dia-Beatable: A simple treatment for diabetes using self-amplifyi... (2022) - Proj...**Title:** Dia-Beatable: A simple treatment for diabetes using self-amplifying RNA **Description:** Diabetes affects millions of people around the world. The current treatments can be expensive and time-consuming. Our project “Dia-Beatable” aims to solve some of these problems by having diabetes patients produce their own insulin. We have developed a system that consists of a self-amplifying mRNA that expresses the human insulin gene on an as needed basis. We hope that our system can be injected in patients monthly, making diabetes treatment much easier. Disclaimer: This video features a fictionalized medical diagnosis of type 1 diabetes and is intended for educational uses only. The Lethbridge High School iGEM team supports all people with diabetes. For more information on diabetes, visit https://diabetes.ca [Wiki](https://2022.igem.wiki/lethbridge-hs)https://static.igem.org/peertube/streaming-playlists/hls/1aff7655-45a3-4515-9f00-236a6e626cb3/9e6cf71f-4fe4-42c9-b6cc-0a84f998ee87-master.m3u8https://video.igem.org/videos/embed/4kmXsb6yCW5Zce98UFoswx11902172022-09-16T13:24:47.463ZYES2022 Project PromotionsNOhttps://video.igem.org/w/i8Yrz4ubo8KSFoTqfmTniwhttps://video.igem.org/lazy-static/thumbnails/6f767129-96a7-468f-9727-c243312eda27.jpgBNDS_China: B. cereus detection kit based on endolysin LysPBC5, ATP sensor, and ... (2022) - Proj...**Title:** B. cereus detection kit based on endolysin LysPBC5, ATP sensor, and HOLMES detection system **Description:** The aim of our project is to produce a kit that can detect the quantity of a common pathogen, B. cereus, which can cause digestive diseases, in home-made food samples. The detection is based on endolysin LysPBC5, ATP sensor, and HOLMES system whose core component is Cas12b protein. CV-induction system and ProQC system are introduced into E. coli to maximize the production of LysPBC5 and Cas12b. [Wiki](https://2022.igem.wiki/bnds-china)https://static.igem.org/peertube/streaming-playlists/hls/8ac858b5-fd63-4dbb-af88-12bd1021cb64/20aa6b71-9a12-419b-9e97-5c76dba66ee9-master.m3u8https://video.igem.org/videos/embed/i8Yrz4ubo8KSFoTqfmTniw1010912022-09-16T13:32:59.520ZYES2022 Project PromotionsNOhttps://video.igem.org/w/hkegJnWDh8pksHeUcpYedthttps://video.igem.org/lazy-static/thumbnails/1fbb5cce-2c4c-48a8-959a-6a3e3b1d9d9b.jpgGuelph: Ceres (2022) - Project Promotion [English]**Title:** Ceres **Description:** Ontario is the top provincial greenhouse producer in Canada. In 2020, Ontario produced 257.6 million kgs of greenhouse tomatoes, with a farm gate value of 1.2 billion dollars. Growers experience massive yield losses worth hundreds of millions of dollars every year due to disease alone. At iGEM Guelph, we have engineered a solution capable of defending greenhouse tomatoes from insect and fungal infections. We engineered Bacillus subtilis, a bacteria naturally found in the rhizosphere of healthy tomato plants, to express two cytotoxic proteins isolated from the bacteria Bacillus thuringiensis. The toxins were placed downstream of an inducible promoter, giving the grower control over whether our bacteria expresses the bioinsecticide. Our biopesticide-producing bacteria can be added to the soil to form a protective biofilm around the plant’s roots. Now, when insect larvae, which often carry fungal diseases, attempt to feed on the plant's roots, the insect will perish. This new bioinsecticide will allow farmers all over Ontario to improve protection and take preventative measures for their crops, as well as form a stepping stone for a new generation of innovative and safe biopesticide defence. [Wiki](https://2022.igem.wiki/guelph)https://static.igem.org/peertube/streaming-playlists/hls/84418763-f02f-4028-8a25-0acb307f4f37/bd40b101-5167-4de3-85c1-4a1547230488-master.m3u8https://video.igem.org/videos/embed/hkegJnWDh8pksHeUcpYedt12002152022-09-16T14:46:12.087ZYES2022 Project PromotionsNOhttps://video.igem.org/w/to8JRe5pSZ4ke7Cesmk2fehttps://video.igem.org/lazy-static/thumbnails/24a761df-7a13-49ac-9179-6e6f490789b1.jpgBFSU-ICUnited: An electrochemical enzyme biosensor for bisphenol A detection (2022) - Project Pro...**Title:** An electrochemical enzyme biosensor for bisphenol A detection **Description:** Environmental pollution has always been a critical issue, our project focuses on one of the most widely used chemicals, bisphenol A. Since its advantages in industrial production, which are transparency, durability, anti-corrosion, etc., bisphenol A has been used in plenty of aspects of the industry. However, the majority of people have nearly no awareness of how BPA is harmful to our health. It is verified to be associated with a variety of diseases including hypertension, prostatic cancer, and chromosomal defects. Therefore, investigating a method to detect bisphenol A is crucial. Our detection method is based on displaying tyrosinase on the surface of E. coli, followed by adsorption onto a glassy-carbon electrode. In detail, tyrosinase is an oxidase that can oxidize BPA to catechol. After that, catechol can still be oxidized by BPA to o-quinone. O-quinone is an electrochemically active substance that can produce electric energy. By detecting this electric signal, the concentration of BPA can be obtained. Apart from that, cell-surface display technology is chosen because of its stability, high specificity, and cost-effectiveness. Finally, in applications, the results show our detection method can provide a better solution for BPA detection in cost, accuracy, and simplification. [Wiki](https://2022.igem.wiki/bfsu-icunited)https://static.igem.org/peertube/streaming-playlists/hls/ddbde03e-0bd5-4508-8bae-3a88bcd6b015/8f58051c-3669-4a50-a6dc-0a8e10a22e2f-master.m3u8https://video.igem.org/videos/embed/to8JRe5pSZ4ke7Cesmk2fe12001282022-09-16T14:58:56.552ZYES2022 Project PromotionsNOhttps://video.igem.org/w/iASvMV8NnuvrWiN9aKwxzVhttps://video.igem.org/lazy-static/thumbnails/a63f7526-ea9b-47df-97df-2fc78d9c777a.jpg#1 OScAthon - Open Science Hackathon for Accessibility#1 OScAthon - Open Science Hackathon for Accessibilityhttps://static.igem.org/peertube/streaming-playlists/hls/8e89c689-efb4-48e6-8e87-8fb384b1920b/a4833ec9-716b-4626-9334-013172d74ca6-master.m3u8https://video.igem.org/videos/embed/iASvMV8NnuvrWiN9aKwxzV53010222022-09-16T15:14:37.891ZYESiGEM CommunityNOhttps://video.igem.org/w/9He93soXrenK8Ut3XLwjRXhttps://video.igem.org/lazy-static/thumbnails/4fb8cb41-29fa-4107-b0f6-5c67cb284a9c.jpgTsinghua: Run Sperm Run (2022) - Project Promotion [English]**Title:** Run Sperm Run **Description:** Sperm quality has been facing challenges worldwide. It is a problem that we cannot escape anymore, for our next generation, for the future of all humanity, yet it still lacks public awareness due to shame feelings and fluke minds. Tsinghua iGEM 2022 team aims to develop a novel diagnostic method to test sperm quality for potential household applications, contributing our efforts to tackling the issue of reproductive health. [Wiki](https://2022.igem.wiki/tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/468ab36a-138a-4620-83ab-9b38c282e2a9/1faa8eac-3214-4ed6-83eb-11a5767e1441-master.m3u8https://video.igem.org/videos/embed/9He93soXrenK8Ut3XLwjRX12003262022-09-16T15:15:13.445ZYES2022 Project PromotionsNOhttps://video.igem.org/w/eYQ437EZeKcHhgeZBLT66Zhttps://video.igem.org/lazy-static/thumbnails/adcbddcb-13bd-4666-b849-e7e4d6d5c56b.jpgWego_Taipei: Eutro in Vitro (2022) - Project Promotion [English]**Title:** Eutro in Vitro **Description:** In various water bodies, the overabundance of nutrients from agriculture chemicals, including fertilizers (nitrogen and phosphorus) and biocides (herbicides, fungicides, and insecticides), resulted in the process of eutrophication. The increase of phosphate and nitrogen amounts leads to algal bloom followed by the decline in sustainability of lives in the water bodies. The physical and chemical solutions that currently exist are less stable and could potentially disturb the ecosystem. Our project presents a new method to solve the issue of eutrophication from its roots. By engineering bacteria that overexpress organophosphorus hydrolase (OPH) and antisense PhoU RNA, we can hydrolyze organic phosphates into inorganic phosphate (Pi) for biocides detoxification, enhance the efficacy of Pi transport, fix the excess of Pi into polyphosphate (polyP), respectively. The implementation of a filtering device containing the engineered bacteria with biosensors could reduce phosphate levels in water bodies to ultimately prevent the cycle of eutrophication.In various water bodies, the overabundance of nutrients from agriculture chemicals, including fertilizers (nitrogen and phosphorus) and biocides (herbicides, fungicides, and insecticides), resulted in the process of eutrophication. The increase of phosphate and nitrogen amounts leads to algal bloom followed by the decline in sustainability of lives in the water bodies. The physical and chemical solutions that currently exist are less stable and could potentially disturb the ecosystem. Our project presents a new method to solve the issue of eutrophication from its roots. By engineering bacteria that over-express organophosphorus hydrolase (OPH) and antisense PhoU RNA, we can hydrolyze organic phosphates into inorganic phosphate (Pi) for biocides detoxification, enhance the efficacy of Pi transport, fix the excess of Pi into polyphosphate (polyP), respectively. The implementation of ...https://static.igem.org/peertube/streaming-playlists/hls/71361127-dc75-4f04-ad77-c5c7c9ba7467/a214de10-dfdc-4d2a-8a29-752ac9e55f28-master.m3u8https://video.igem.org/videos/embed/eYQ437EZeKcHhgeZBLT66Z12002222022-09-16T15:42:59.294ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nUAD3g4Gx6oediAAHvArtrhttps://video.igem.org/lazy-static/thumbnails/a529ab0b-fbe9-4c0b-b820-008a3b5dc5aa.jpgLZU-HS-Pro-A: Psychiatric Disorders Regulating Probiotics (2022) - Project Promotion [English]**Title:** Psychiatric Disorders Regulating Probiotics **Description:** In our project, we genetically modified E. coli Nissle 1917 so the germs can produce GABA and 5-HTP. We plan to inject this genetically modified strain into the human gut to mitigate depression. We also designed a system for apoptosis to kill the germs once they get out of the human body and prevent transgenetic pollution. [Wiki](https://2022.igem.wiki/lzu-hs-pro-a)https://static.igem.org/peertube/streaming-playlists/hls/b167ef48-509a-40f9-9529-82e67746cffb/b06f4470-e0fd-4da8-83ca-edb7a7b67603-master.m3u8https://video.igem.org/videos/embed/nUAD3g4Gx6oediAAHvArtr11601712022-09-16T16:20:47.407ZProbioticsGut-brainAxisDepressionYES2022 Project PromotionsNOhttps://video.igem.org/w/rhWTLNZwkC5Q7ZMxNUkSidhttps://video.igem.org/lazy-static/thumbnails/f5b4fe5a-6127-4ee4-a09a-0198f41f8f7d.jpg#2 OScAthon - Open Science Hackathon for Accessibility#2 OScAthon - Open Science Hackathon for Accessibilityhttps://static.igem.org/peertube/streaming-playlists/hls/ccd23213-32ec-4b45-8f72-990e750fbf26/eb98862b-9bba-45ea-9277-b28e70ebf7c7-master.m3u8https://video.igem.org/videos/embed/rhWTLNZwkC5Q7ZMxNUkSid68090122022-09-16T17:22:26.631ZYESiGEM CommunityNOhttps://video.igem.org/w/37JK3DshD2DcS274XAatDMhttps://video.igem.org/lazy-static/thumbnails/94f29724-8741-40e3-bd5c-199e893e0bef.jpgUCAS-China: FitYo: a customizable meal replacement with unlimited possibilities (2022) - Project ...**Title:** FitYo: a customizable meal replacement with unlimited possibilities **Description:** FitYo consists of two parts: the engineered Lactobacillus bulgaricus and the meal replacement making system. Together, they make up a user-friendly and on-demand dietary solution for anyone who desires a highly diversified and customizable meal replacement product. Utilizing the concepts of synthetic biology, we designed a fermentation system which can be induced by light and temperature simultaneously, making it possible to control the yield of different substances selectively. To implement our design into practical occasions, we also built a set of hardware and software, enabling the users to customize their meal replacement milkshake according to their own preferences of flavor and function. Essentially, FitYo promotes the idea of healthy eating and free choices, hoping to offer unlimited possibilities for future diets. [Wiki](https://2022.igem.wiki/ucas-china)https://static.igem.org/peertube/streaming-playlists/hls/112314ab-15de-4312-91a1-0678ab12a303/de530492-156b-44ab-bd18-b7baf09ff8ff-master.m3u8https://video.igem.org/videos/embed/37JK3DshD2DcS274XAatDM11901782022-09-16T17:39:30.201ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8TC57oZJtExbK8gC3eeqSShttps://video.igem.org/lazy-static/thumbnails/7b2d4bd8-2964-4248-9f26-f2def8358969.jpgNDSU: An Alternative to Synthetic Dyes (2022) - Project Promotion [English]**Title:** An Alternative to Synthetic Dyes **Description:** Our student-led iGEM team is working to develop natural dyes for textiles using engineered proteins produced in bacteria. Many bacteria already produce natural pigments in a wide variety of colors. Our goal this season is to optimize the structure and binding capabilities of these pigments for use as an alternative to traditional synthetic textile dyes, such as azo dyes. These synthetic dyes are much more labor-intensive to produce and can have very harsh byproducts. Some azo dyes are even considered carcinogens by the European Union. Our dyes will be made from naturally occurring pigments fused to binding modules to enhance their binding capabilities to organic textiles such as cotton. [Wiki](https://2022.igem.wiki/ndsu)https://static.igem.org/peertube/streaming-playlists/hls/3fe521e1-c9df-4105-8aba-4403a8c6f37e/1f767963-2d00-4d35-a0c1-322aabb3035c-master.m3u8https://video.igem.org/videos/embed/8TC57oZJtExbK8gC3eeqSS11903602022-09-16T18:38:53.168ZYES2022 Project PromotionsNOhttps://video.igem.org/w/fPe8tDZXtL5RvvMWKNYoznhttps://video.igem.org/lazy-static/thumbnails/b3683dbd-e0bf-4a53-9c4c-cddddeaa4e68.jpgWashington: Melanoma Detection and Therapy (2022) - Project Promotion [English]**Title:** Melanoma Detection and Therapy **Description:** Melanoma is the deadliest form of cancer. This is as the cancer is incurable in its advanced stages. Therefore, early detection of melanoma drastically increases treatment efficacy and thus survivability. We hope to develop a paper-based point of care (POC) diagnostic test for early detection of melanoma. We will also design peptide-based anti-cancer therapeutics that possess both the pharmacophores of cell penetrating and protein mimicry (anticancer bioactivity). [Wiki](https://2022.igem.wiki/washington)https://static.igem.org/peertube/streaming-playlists/hls/77f7fd49-df66-48e7-b787-af3ea9eff927/4aacc005-b067-4220-aea1-5d08af13bb98-master.m3u8https://video.igem.org/videos/embed/fPe8tDZXtL5RvvMWKNYozn12001722022-09-16T18:50:44.019ZYES2022 Project PromotionsNOhttps://video.igem.org/w/nVJbYu7cbCXXAfBdLPsqURhttps://video.igem.org/lazy-static/thumbnails/68df3bba-7e0a-4d78-90a6-0f56b8c9e50f.jpgManchester: Safety Grant Video (2022) [English]The purpose of this video is to showcase impressive Applied Safety & Security work done by iGEM teams, to encourage future teams to work on safety and security and show people that young synthetic biologists can contribute to these problems.https://static.igem.org/peertube/streaming-playlists/hls/b19054e9-b2d0-4842-9bff-e079586ddd59/9e64fc0b-0e21-4054-ad94-bb7ca8bd66ea-master.m3u8https://video.igem.org/videos/embed/nVJbYu7cbCXXAfBdLPsqUR91082022-09-16T19:51:38.341ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aDha4fkAFcgJYvrZkCgHwehttps://video.igem.org/lazy-static/thumbnails/c8078a68-6a4b-46e5-a331-c52f787868b1.jpgYale: Biosynthesis of an Optimized (S)-equol Pathway in Gut Microbial Species fo... (2022) - Proj...**Title:** Biosynthesis of an Optimized (S)-equol Pathway in Gut Microbial Species for Probiotic Health Applications **Description:** Adlercreutzia equolifaciens, a human intestinal bacterium, is one of the most well known producers of equol, an isoflavandiol estrogen that plays a role in providing anti-inflammatory and antioxidant health benefits. Equol is not able to be successfully produced in all humans due to differences in an individual’s environmental factors. To combat this issue, we sought to improve the rate at which Adlercreutzia equolifasciens and other gut microbial species produce equol. [Wiki](https://2022.igem.wiki/yale)https://static.igem.org/peertube/streaming-playlists/hls/4e16b958-4b57-4021-943e-f5a9b31b82d5/87d6a078-5aff-4315-ba34-e5e2201eddd9-master.m3u8https://video.igem.org/videos/embed/aDha4fkAFcgJYvrZkCgHwe12002072022-09-16T20:32:07.902ZYES2022 Project PromotionsNOhttps://video.igem.org/w/tGQsZffP7fH9PzhQ5TRRSXhttps://video.igem.org/lazy-static/thumbnails/3fce9815-5c76-4d81-aa7f-2c47b648116d.jpgMSP-Maastricht: Aestuarium (2022) - Project Promotion [English]**Title:** Aestuarium **Description:** The MSP iGEM team has decided to tackle the ongoing issue of water scarcity, both locally and globally, by developing a biosynthetic approach to water desalination. Current desalination techniques use fossil fuels, this is a costly process that releases greenhouse gas emission. Our approach is to make a sustainable, energy efficient solution. The aim is to accomplish this by genetically modifying marine cyanobacteria, such that the organism will be able to take up larger quantities of salt through two cellular pumps. The NpHR pump will be utilised for the removal of Cl-, whilst a pH-dependent antiporter will be responsible for the removal of Na+. The pump activity will be controlled by exposing light of a specific wavelength to the bacteria, which will be encapsulated in a sol-gel medium, facilitating potential industry applications. [Wiki](https://2022.igem.wiki/msp-maastricht)https://static.igem.org/peertube/streaming-playlists/hls/e05a5cc7-6907-425e-b3cf-44b8466ea4c7/5ea00d93-d65d-4ee9-a52a-d41b142cba47-master.m3u8https://video.igem.org/videos/embed/tGQsZffP7fH9PzhQ5TRRSX12001942022-09-16T21:45:37.090ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mZgcUhUX65dhSh27aHiuK2https://video.igem.org/lazy-static/thumbnails/10ec1e30-23c8-4fc3-b2f8-ec8993d7a109.jpgLZU-CHINA: LGBTQ brochure in hospital (2022)Due to the relative conservative policy for LGBTQ community in China, 2022 LZU-CHINA developed a brochure and putted it into hospital to eliminate the prejudice of public.https://static.igem.org/peertube/streaming-playlists/hls/a9f589e3-7573-471a-a17e-f706ff3a6487/b8811a28-c2d3-4709-90b0-2ca4d1458a55-master.m3u8https://video.igem.org/videos/embed/mZgcUhUX65dhSh27aHiuK274082022-09-17T15:34:48.107ZsciencebiologyinclusivityYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hnpakmxnNX8jWxbsU6xQAHhttps://video.igem.org/lazy-static/thumbnails/b6b5e2f3-9aca-4063-bfb9-0e1fd0439879.jpgLZU-CHINA: LGBTQ written proposal in hospital (2022)Due to the relative conservative policy for LGBTQ community in China, 2022 LZU-CHINA developed a written proposal for health care workers. This video is about the process we promote it in the hospital.https://static.igem.org/peertube/streaming-playlists/hls/848f1c74-d087-4d78-b334-63a6b36065c5/784a3f91-ab37-4fee-b230-c409dbe98791-master.m3u8https://video.igem.org/videos/embed/hnpakmxnNX8jWxbsU6xQAH78042022-09-17T15:44:44.712ZinclusivityscienceYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3TKR9KwmaF47w2roXihkGDhttps://video.igem.org/lazy-static/thumbnails/9ff0c0de-f5e0-4bfe-b4cb-c2023986475d.jpg#3 OScAthon - Open Science Hackathon for Accessibility#3 OScAthon - Open Science Hackathon for Accessibilityhttps://static.igem.org/peertube/streaming-playlists/hls/176c3b45-6c42-446b-bff5-5ee991bde5d1/043a14e1-8d48-44ae-b6fa-a4075c11adff-master.m3u8https://video.igem.org/videos/embed/3TKR9KwmaF47w2roXihkGD9220072022-09-17T16:53:19.450ZYESiGEM CommunityNOhttps://video.igem.org/w/nyStcWwNyu6DKMZ3joKVothttps://video.igem.org/lazy-static/thumbnails/9fb9c310-7940-4c57-b787-7643277a6c1e.jpgNYCU_Formosa: Project Logo 1 (2022) [English]https://2022.igem.wiki/nycu-formosa/https://static.igem.org/peertube/streaming-playlists/hls/aea6d0ae-cbf2-483f-a45c-1cfa197b30e3/8775a56d-555a-479a-b980-af2be03872dd-master.m3u8https://video.igem.org/videos/embed/nyStcWwNyu6DKMZ3joKVot8062022-09-18T15:59:09.574ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4MsnkP1U6Y7M67gunytcPZhttps://video.igem.org/lazy-static/thumbnails/3c2c30ab-ca7c-40e7-be1e-723992f9dab1.jpgNYCU_Formosa: Project Logo 2 (2022) [English]https://2022.igem.wiki/nycu-formosa/https://static.igem.org/peertube/streaming-playlists/hls/1ea422ad-9999-4cc0-a001-13ace79abe43/2023049a-5ff6-4d11-9ee2-e458fd0062a8-master.m3u8https://video.igem.org/videos/embed/4MsnkP1U6Y7M67gunytcPZ8042022-09-18T16:01:36.234ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4TibbbJXUdFk8vpEboNWCQhttps://video.igem.org/lazy-static/thumbnails/f41c7bf4-b576-4a83-90e6-69f0eec1ef4c.jpgUTokyo: Safety Grant Video (2022) [English]UTokyo: Safety Grant Video (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/1f74eed8-8dfd-472d-bb24-8e3e2d938ec0/120d69da-3a91-49a7-ac4e-55ad882f53fd-master.m3u8https://video.igem.org/videos/embed/4TibbbJXUdFk8vpEboNWCQ690142022-09-19T06:58:10.706ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3U3gVSmjY4X2RqfyShE8wRhttps://video.igem.org/lazy-static/thumbnails/fd97ff1c-f864-429b-8793-3a32ccf708d9.jpgLinkoping_Sweden: Home page animation (2022) [English]Tear drop home page animation.https://static.igem.org/peertube/streaming-playlists/hls/17765aeb-4c2e-4b15-b6d5-f2cadded4829/e89e96ca-c36d-4937-8639-12885e19459d-master.m3u8https://video.igem.org/videos/embed/3U3gVSmjY4X2RqfyShE8wR21082022-09-19T14:27:59.615ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hWgvzZrHD8iiosRNLTDazThttps://video.igem.org/lazy-static/thumbnails/e516bf09-125c-4d8b-9eba-3160361606ab.jpgLZU-CHINA: summer plasmid orienteering (2022) [Chinese]In order to promote synthetic biology, 2022 LZU-CHINA organized a summer plasmid orienteering in Lanzhou University. This video is about whole process of this activity.https://static.igem.org/peertube/streaming-playlists/hls/8925f0c9-ecb5-4302-b1bc-1edd2c378b69/5b8d80df-c018-4f2b-aaad-c28dc8500d4c-master.m3u8https://video.igem.org/videos/embed/hWgvzZrHD8iiosRNLTDazT780232022-09-19T14:55:10.374ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/obqcEuT35MREkUDxnnQTrihttps://video.igem.org/lazy-static/thumbnails/e7c5007b-1158-4243-8898-ad6070e1f961.jpgGO_Paris-Saclay: Downloading the sequence (2022) [English]The fist part of our CRISPRi tutorial where we explain how to download the genomic sequence of the chassis. Link to the site we use: https://www.ncbi.nlm.nih.gov/genome/ https://static.igem.org/peertube/streaming-playlists/hls/b39d6715-d8c0-4388-9671-38fdd2a57c17/9d79afdb-7733-4083-8de1-2b90e8929a62-master.m3u8https://video.igem.org/videos/embed/obqcEuT35MREkUDxnnQTri46032022-09-21T19:36:40.452ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rAV3DRAaK9BTRvPjjWxVrwhttps://video.igem.org/lazy-static/thumbnails/c51fd100-a1f8-4965-b59b-dfbd11cf0725.jpgGO_Paris-Saclay: AntiSMASH (2022) [English]The second part of our CRISPRi tutorial where we explain how to find secondary metabolite gene clusters in the genome of interest. Link to the site we use:https://antismash.secondarymetabolites.org/#!/start https://static.igem.org/peertube/streaming-playlists/hls/cf5471fd-99b0-4534-bd5b-f770f6c5a8b4/35930394-1b5e-4f32-9050-a5fb9473db87-master.m3u8https://video.igem.org/videos/embed/rAV3DRAaK9BTRvPjjWxVrw110032022-09-21T19:40:02.860ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/d4BeeLYd8DitpjdXHVXhd8https://video.igem.org/lazy-static/thumbnails/ae6ee136-a9c4-4abd-9c52-a8ee38f41d28.jpgGO_Paris-Saclay: Gene sequence (2022) [English]The third part of our CRISPRi tutorial where we explain how to download the sequence of the targeted gene. Link to the site we use: https://www.ncbi.nlm.nih.gov/genome/ https://static.igem.org/peertube/streaming-playlists/hls/61ae9afb-7a48-49bb-aa93-3798defe2047/bc59bcde-5cf9-41c9-b3e1-bfee37959e4b-master.m3u8https://video.igem.org/videos/embed/d4BeeLYd8DitpjdXHVXhd883042022-09-21T19:43:58.708ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uBeMF8eFF9gSoBHbz3zVW4https://video.igem.org/lazy-static/thumbnails/4722d12b-38fb-4ff0-b402-535a857e3e02.jpgGO_Paris-Saclay: CRISPy (2022) [English]The forth part of our CRISPRi tutorial where we teach how to find guuide RNA sequeneces using the CRISPy website. Link to the site we use: https://crispy.secondarymetabolites.org/#/input https://static.igem.org/peertube/streaming-playlists/hls/e7ab6949-3e10-4923-a1b2-de2bbfee139b/cca2fa68-9291-4007-895b-2d0e7af52b9e-master.m3u8https://video.igem.org/videos/embed/uBeMF8eFF9gSoBHbz3zVW463032022-09-21T19:47:18.529ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9SXUmiKgbMoGG5EHrtTuQUhttps://video.igem.org/lazy-static/thumbnails/88268779-ee44-456f-9200-b3f6b10e9c3b.jpgGO_Paris-Saclay: Pasteur (2022) [English]The fifth part of our CRISPRi tutorial where we teach how to find guide RNA sequences using the Pasteur website. Link to the website: https://crispr-browser.pasteur.cloud/guide-rna-design https://static.igem.org/peertube/streaming-playlists/hls/47e6bfbc-bf91-424a-9231-fc8be622318c/746bb2be-bcab-4c05-9773-1166994139c3-master.m3u8https://video.igem.org/videos/embed/9SXUmiKgbMoGG5EHrtTuQU80012022-09-21T19:48:59.862ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cb31jAD5goqzgPyAPNCRuHhttps://video.igem.org/lazy-static/thumbnails/88184ca3-db20-4b2b-842e-7a39b87a58df.jpgTUDelft: bolt animation (2022) [English]An animation of the bolt part of SPYKEhttps://static.igem.org/peertube/streaming-playlists/hls/5a7b32eb-ce53-47bd-89f2-095cfc8fe6c5/11a5342e-d4b7-47be-b7c3-24e356f663d4-master.m3u8https://video.igem.org/videos/embed/cb31jAD5goqzgPyAPNCRuH40172022-09-22T14:28:02.002ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fZzAz8rGfwuipt4xdC4Bqbhttps://video.igem.org/lazy-static/thumbnails/ff2e5b4f-1409-41f9-9dc3-f55cbb64d340.jpgTUDelft: nut animation (2022)An animation of the nut part of SPYKEhttps://static.igem.org/peertube/streaming-playlists/hls/796a0a59-e607-418b-944f-4aa78ea28fde/1f061d3e-031d-45db-b94d-52488aeb7fba-master.m3u8https://video.igem.org/videos/embed/fZzAz8rGfwuipt4xdC4Bqb40172022-09-22T14:33:00.430ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/w2TRmgb56RBn7W8ptVMEukhttps://video.igem.org/lazy-static/thumbnails/2ec6d5bf-ce30-4a55-8f0b-8c4f863ddaaf.jpgTUDelft: beverage compartment animation (2022)Animation of the beverage compartment of SPYKEhttps://static.igem.org/peertube/streaming-playlists/hls/f335db98-3d75-4795-bccd-68fb14d7763b/1b0a2ddb-3a34-4a40-b607-33d822b9983d-master.m3u8https://video.igem.org/videos/embed/w2TRmgb56RBn7W8ptVMEuk40212022-09-22T14:34:54.523ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xpiMrSPj53U2bMgqY5v3yWhttps://video.igem.org/lazy-static/thumbnails/45f18efa-4a3f-4997-9160-51a45d75ddac.jpgTUDelft: arduino compartment animation (2022)An animation of the Arduino compartment of SPYKEhttps://static.igem.org/peertube/streaming-playlists/hls/fe4c5d5b-4b7f-430c-b150-f32c01bff006/433182c3-7361-4d31-a2ac-9e523ed2fe81-master.m3u8https://video.igem.org/videos/embed/xpiMrSPj53U2bMgqY5v3yW40192022-09-22T14:38:35.345ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dm4X9nDEMB518bfphJoy7uhttps://video.igem.org/lazy-static/thumbnails/ab60a6d2-5eed-41fc-8743-63d9d9b371ee.jpgTUDelft: electrode compartment animation (2022)An animation of the electrode compartment of SPYKEhttps://static.igem.org/peertube/streaming-playlists/hls/63faf95c-5772-4e97-9bf2-0aff4ca336c8/4a0a1a6b-7b4b-450d-9a95-47e7fb2026ca-master.m3u8https://video.igem.org/videos/embed/dm4X9nDEMB518bfphJoy7u40172022-09-22T14:39:40.937ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uSxDvKnDBz9KtTprhB8SV1https://video.igem.org/lazy-static/thumbnails/63b7f783-34f7-40b1-8165-11424a8f84f2.jpgTUDelft: Full SPYKE animation (2022)An animation of the full prototype of SPYKEhttps://static.igem.org/peertube/streaming-playlists/hls/e9ce92f1-79ee-4319-b731-0fc63572f212/cab8bc25-48f4-4683-a772-52d57baaa3ad-master.m3u8https://video.igem.org/videos/embed/uSxDvKnDBz9KtTprhB8SV180322022-09-22T14:41:48.126ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fspruasuH8oVikKZ4EqModhttps://video.igem.org/lazy-static/thumbnails/da9b3e3e-a172-4faf-874e-998e2733c7e0.jpgGO_Paris-Saclay: HP (2022)Video showing the climate crisis by Sokrich Ponndarahttps://static.igem.org/peertube/streaming-playlists/hls/750fb96c-3371-489d-b856-a39f7fb9c21c/13174354-5599-486b-a1db-4389d0e67e8b-master.m3u8https://video.igem.org/videos/embed/fspruasuH8oVikKZ4EqMod660182022-09-22T20:37:07.550ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/i8UQrxFVRWWmd5rdh2wvLJhttps://video.igem.org/lazy-static/thumbnails/8a20256f-30ee-4f03-a350-3f5d4b023cdd.jpgTUDelft: BlcR animation (2022)An animation of our protein of interest, BlcR.https://static.igem.org/peertube/streaming-playlists/hls/8ac61fdb-baaa-427a-99cc-bb35506f8c76/ad5ce2f2-6dd9-4c8d-aab8-14755e6e4f83-master.m3u8https://video.igem.org/videos/embed/i8UQrxFVRWWmd5rdh2wvLJ40272022-09-23T10:05:51.235ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/m54HqiRabiTsLZ3MRqfHvghttps://video.igem.org/lazy-static/thumbnails/85ef3fee-ac58-4426-9014-5d3b399457a4.jpgELTE: Cyla (2022)Presentation of a molecular model of Cyla with ChimeraX1.4. https://2022.igem.wiki/eltehttps://static.igem.org/peertube/streaming-playlists/hls/a2880985-386d-47e7-95cf-6ea2cf4ddbf5/114e6ed7-c838-4000-a343-4c548f21b61c-master.m3u8https://video.igem.org/videos/embed/m54HqiRabiTsLZ3MRqfHvg1401722022-09-23T20:10:15.151Zmodellingmolecular modelCylaYESiGEM 2022 TeamsNOhttps://video.igem.org/w/k495FuDb6JQPf5WBLYLCuChttps://video.igem.org/lazy-static/thumbnails/783a7111-815f-4197-8499-d614045d4434.jpgNMU_China: Engineering P44 (2022)NMU_China: Engineering P44 (2022)https://static.igem.org/peertube/streaming-playlists/hls/9a4dd883-d4e7-4fb2-a951-869cb558af2c/9410d5b8-937a-4660-8b56-4718d99a00f4-master.m3u8https://video.igem.org/videos/embed/k495FuDb6JQPf5WBLYLCuC740102022-09-24T02:39:28.790ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bFQYsnmtUnZJnBijHaTNQ5https://video.igem.org/lazy-static/thumbnails/ae509297-ffdb-40a8-8e8e-7e071c1521e3.jpg#4 Hacking iGEM - JudgingThe iGEM Competition, as the name implies, is a competition. Presenting your work to a panel of judges at the end of the season is an integral part of the iGEM experience. We're having Nancy Burgess Christen (head of the judging program at iGEM), Mahmoud AbdelGawad and Dimitrios Michailidis (members of the judging program at iGEM) to share with us her judging experience and how to navigate the competition.https://static.igem.org/peertube/streaming-playlists/hls/568b9314-91a1-4db3-b71a-84b3cd355184/cdda69a9-ad27-4b7b-93f1-8763438b4bce-master.m3u8https://video.igem.org/videos/embed/bFQYsnmtUnZJnBijHaTNQ533810432022-09-24T16:27:05.759ZYESiGEM CommunityNOhttps://video.igem.org/w/ioj7vDeRTWDvtDMPEDDhfKhttps://video.igem.org/lazy-static/thumbnails/2eb4792d-eda0-4b05-8eb8-57da1f7f5693.jpgKCL_UK: moving-bacterium (2022) [English]KCL_UK: moving-bacterium (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/8cc8e1da-40c1-4048-a091-96fedc6f73af/473063c3-6e76-4dc8-8a9c-456a67ac9900-master.m3u8https://video.igem.org/videos/embed/ioj7vDeRTWDvtDMPEDDhfK2072022-09-25T15:06:48.000ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/86XgafhGUs2iXJoPcqmX84https://video.igem.org/lazy-static/thumbnails/d9e670a9-8c7f-4116-a902-fdff36fe6765.jpgLethbridge_HS: iGEP Ep. 2 (2022) [English]Reading over our BioTreks paper, bringing our audience through what typical Lethbridge High School iGEM meetings look like.https://static.igem.org/peertube/streaming-playlists/hls/3984bed9-0241-4156-9e51-085f97a55f95/586b780b-62c1-46dc-baa7-5964060e4240-master.m3u8https://video.igem.org/videos/embed/86XgafhGUs2iXJoPcqmX845385092022-09-25T21:34:24.940ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sxwPtMX2r56F3RMQz3GHy7https://video.igem.org/lazy-static/thumbnails/49b3bfa9-6af7-46dd-9c0c-c896036d1193.jpgTec-Chihuahua: centrifugeTest (2022)This is a test done with the centrifuge developed by our team, Tec Chihuahua, 2022.https://static.igem.org/peertube/streaming-playlists/hls/d6f4a798-811e-4fd8-aafb-1bf22db0c98a/3e77f2ab-80db-461e-94aa-fdf6d46859c7-master.m3u8https://video.igem.org/videos/embed/sxwPtMX2r56F3RMQz3GHy7390162022-09-26T08:08:13.417ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/duA4udfj9FfPwZhLbHVqPDhttps://video.igem.org/lazy-static/thumbnails/bcab87e1-ad1c-4d0e-8f79-fb2e5459d4f2.jpgTec-Chihuahua: centrifugeDemo (2022)This is the demo video of our centrifuge working.https://static.igem.org/peertube/streaming-playlists/hls/652b7ad2-1e5c-476b-9ba2-f05ec5eb7c43/2b872b68-29a8-4f89-b6a5-5adb37a2629e-master.m3u8https://video.igem.org/videos/embed/duA4udfj9FfPwZhLbHVqPD80242022-09-26T08:10:58.438ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/i2y4h7NC4mHMJdLGPe86QHhttps://video.igem.org/lazy-static/thumbnails/e40c823d-8d0c-40f5-a721-9a4b3c4c5e44.jpgTec-Chihuahua: Background (2022)Chilli crops.https://static.igem.org/peertube/streaming-playlists/hls/89e2db44-d8c2-4f2e-977c-9c919d78fa05/d5b1f547-16d0-4c5f-b471-87c925091f2f-master.m3u8https://video.igem.org/videos/embed/i2y4h7NC4mHMJdLGPe86QH60102022-09-26T08:19:59.435ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pwuefvWRbq3XHLQLSM3qk6https://video.igem.org/lazy-static/thumbnails/fea322b4-f062-410f-8516-dc5cb2c08222.jpgTec-Chihuahua: Centrifuge (2022)Testing our centrifuge!https://static.igem.org/peertube/streaming-playlists/hls/be83e610-0785-4977-91f0-98adfe8e6613/8aef56da-44b1-49cd-99f4-13935af8b1b1-master.m3u8https://video.igem.org/videos/embed/pwuefvWRbq3XHLQLSM3qk650252022-09-26T14:35:20.071ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wQCXRh9BMAbGZbhdAU8xkRhttps://video.igem.org/lazy-static/thumbnails/3074371b-c8c5-4196-8163-8dda78d154f8.jpgUPenn: Photocrete Animation (2022)Animation of Photocrete: a light-inducible secretion systemhttps://static.igem.org/peertube/streaming-playlists/hls/f9bca3d5-2929-4955-ba2d-2e202f5fd073/e1e915a3-3b6e-4b24-a24c-f7fbe5e38efb-master.m3u8https://video.igem.org/videos/embed/wQCXRh9BMAbGZbhdAU8xkR1404892022-09-26T20:56:47.828ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mzsjdcL39gxh1BvHnNy21chttps://video.igem.org/lazy-static/thumbnails/d62c8919-ba04-4c2a-bc38-21f622634b30.jpgCPU_Nanjing: Experiment (2022)The video is shot for the experiment about the detection and discrimination of phosphate and phosphitehttps://static.igem.org/peertube/streaming-playlists/hls/a6a288bf-74a0-4623-873a-fb2290e5ccef/e3c46b04-a5a5-405a-96cc-2ae24315575e-master.m3u8https://video.igem.org/videos/embed/mzsjdcL39gxh1BvHnNy21c680202022-09-28T11:36:48.523ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rdrBrbK8s6Zf7KNJALzBUFhttps://video.igem.org/lazy-static/thumbnails/f3cb1c51-3e5e-4a3d-a2d6-284312a81fcb.jpgCPU_Nanjing Outdoor demonstration (2022)It's a video that record the demonstration we made to distinguish phosphate and phosphite in university campushttps://static.igem.org/peertube/streaming-playlists/hls/cc312ccf-5e5c-4fa3-bc40-b3020ec37583/6cae291f-14e4-4ae0-8ca0-9a625c3707b2-master.m3u8https://video.igem.org/videos/embed/rdrBrbK8s6Zf7KNJALzBUF280232022-09-28T11:43:03.973ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5iCCYyAGSUmZBhTTu1nomEhttps://video.igem.org/lazy-static/thumbnails/50b1b4ea-5c23-4e5d-9f9c-98cbec41fe32.jpgNJMU-China: NJMU-China system 1 (2022) [English]Explanation of the first engineered bacteria.https://static.igem.org/peertube/streaming-playlists/hls/22dac703-472f-47ac-b6a1-fea3124e00ce/474e70e8-5d61-49d4-92eb-2e8953de069d-master.m3u8https://video.igem.org/videos/embed/5iCCYyAGSUmZBhTTu1nomE18042022-09-28T12:17:40.852ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rmWuPLcQZ4pYY4S1vBFts7https://video.igem.org/lazy-static/thumbnails/adeea9b3-e5e4-4c83-8bba-29937145510f.jpgSheffield: Introduction to Alphafold (2022) [English]Learn a bit about AlphaFold from PhD student Adam Bowie, de novo protein design from master's student Isaac White, and how you can use AlphaFold in your own work with a live ColabFold demo from Brooks Rady! For more information about Sheffield's 2022 outreach, you can see our wiki: https://2022.igem.wiki/sheffield/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/cd60ed45-8db2-4bd6-8728-8c299599e91e/5f779052-46cc-4868-9b42-6455ac7fe8c3-master.m3u8https://video.igem.org/videos/embed/rmWuPLcQZ4pYY4S1vBFts761610182022-09-28T13:54:04.267ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xmWfx73fnufLnioC7bJm8Xhttps://video.igem.org/lazy-static/thumbnails/d5633fb6-91eb-445b-9244-962f3e07de58.jpgSheffield: Data Analysis in Julia (2022) [English]Join us for the fourth session in the collaborative Coding with Biology webinar series put on by iGEM Sheffield, Cambridge, UCL, and Vienna! In this session, learn a bit about Julia — a relatively new language for high-performance scientific computing — and how it can be applied to growth curve analysis! For more on this collaboration and outreach, see our wiki: https://2022.igem.wiki/sheffield/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/fdf79b64-0ee1-4184-9fd8-5fadba9b928d/1f35b8df-b0cf-41bd-b882-f9ec50e6a154-master.m3u8https://video.igem.org/videos/embed/xmWfx73fnufLnioC7bJm8X4760032022-09-28T14:56:33.426ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hFmJyhLvWzRhtsVWNLxhDdhttps://video.igem.org/lazy-static/thumbnails/1b649c70-e88f-415c-8414-926e47b9b7c6.jpgNMU_China: Whack-A-Mole_open1 (2022)NMU_China: Whack-A-Mole_open1 (2022)https://static.igem.org/peertube/streaming-playlists/hls/871100d2-4b7f-4f02-a60a-4d0aaa6c1506/c33e6af9-941c-4c2d-a377-c60606361745-master.m3u8https://video.igem.org/videos/embed/hFmJyhLvWzRhtsVWNLxhDd5042022-09-28T15:14:31.901ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pZVkGDaYjjXZcSViEFRDQnhttps://video.igem.org/lazy-static/thumbnails/ebd54bda-0802-4d3f-b431-d6a8e758c22c.jpgSuZhou_Union: Software (2022) [English]Softwarehttps://static.igem.org/peertube/streaming-playlists/hls/c25874af-d007-49e0-b856-9d035d9fa8c1/2cc64ecf-c00b-417a-878b-6362cd0190f5-master.m3u8https://video.igem.org/videos/embed/pZVkGDaYjjXZcSViEFRDQn110062022-09-29T01:25:08.599ZSuZhou_UnionYESiGEM 2022 TeamsNOhttps://video.igem.org/w/trMXnMXaaVaEaktZVSmHxihttps://video.igem.org/lazy-static/thumbnails/f7fb56d6-4e2b-41a4-be1d-e573a66b0f47.jpgLZU-CHINA: Model Construction (2022)The process we build modelhttps://static.igem.org/peertube/streaming-playlists/hls/de40a8a0-1bee-4115-89f0-c3b25a30c0fb/e47909e9-cbf4-4f79-abd7-a4e5a331dade-master.m3u8https://video.igem.org/videos/embed/trMXnMXaaVaEaktZVSmHxi120562022-09-29T02:50:37.738ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ktn43G1xCCKgqagrH7WEE1https://video.igem.org/lazy-static/thumbnails/29c81a5f-4e2a-4fbe-9b39-8d34381ddb57.jpgLZU-CHINA: Education in Primary School (2022) [English]We developed a lecture about synthetic biology in primary school, the video is about the process.https://static.igem.org/peertube/streaming-playlists/hls/9dafb0be-9cc6-4002-af48-bffcfb5a0c24/8cce1488-91a2-46f8-ba0d-876fd22d4a17-master.m3u8https://video.igem.org/videos/embed/ktn43G1xCCKgqagrH7WEE1110212022-09-29T02:54:28.951ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dmc4cTd882752CgaZkXLAzhttps://video.igem.org/lazy-static/thumbnails/e8d2194a-56c9-4919-a6b3-cea2011e2467.jpgKU_Leuven: Generic DNA (2022) [English]This is a generic dna strand 3d animationhttps://static.igem.org/peertube/streaming-playlists/hls/63ff5a34-8302-4063-bef0-d2479cbcf52d/2b9cc8d4-18e5-4069-8bce-4a79df74e4ad-master.m3u8https://video.igem.org/videos/embed/dmc4cTd882752CgaZkXLAz1708192022-09-29T08:26:58.628ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4LwvPs1fYJimkxzmrwcS9Rhttps://video.igem.org/lazy-static/thumbnails/9e6907f5-9551-4b5e-9579-f760a7daf20b.jpgTUDelft: Design (2022)cup design videohttps://static.igem.org/peertube/streaming-playlists/hls/1e82f264-71c6-4c27-97d6-702f3e64f3c1/6bcc4e25-95f4-401d-94cb-3b6d01b92c54-master.m3u8https://video.igem.org/videos/embed/4LwvPs1fYJimkxzmrwcS9R500382022-09-29T10:18:16.998ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1jNgZJYbFUBuwEBDEeiMFVhttps://video.igem.org/lazy-static/thumbnails/e1be660f-7a9b-4c42-bbb3-cd496e2c10b1.jpgSUNY_Oneonta: Phage Exhibit 3D Model Assembly (2022)This video shows the initial 3D modeling for a model of a bacteriophage that was designed as part of a museum exhibit on viruses, specifically bacteriophage. The user will assemble the model based on instructions in the accompanying exhibit.https://static.igem.org/peertube/streaming-playlists/hls/029fe804-f7bb-4dfa-9ef4-9c4239264557/73479481-7360-4123-997a-7ad422cca8b8-master.m3u8https://video.igem.org/videos/embed/1jNgZJYbFUBuwEBDEeiMFV180172022-09-29T18:30:57.220Zmuseum exhibitbacteriophagephagevirus3D modelYESiGEM 2022 TeamsNOhttps://video.igem.org/w/j8mJTkB34WdNTxqhd3drTzhttps://video.igem.org/lazy-static/thumbnails/ae72e9b2-d981-4496-84af-a28b319f5b88.jpgMSP-Maastricht: sodium-chloride-pump-animation (2022) [English]A video simulating our genetically inserted pumps and anti-porters. The animation was created by our teammate Lara Alexandra Anderegg. Our wiki link can be found at https://2022.igem.wiki/msp-maastricht/ .https://static.igem.org/peertube/streaming-playlists/hls/92cb7bbe-b1c8-4023-b13c-3dc4e161b0b3/b99c482a-038c-47f5-b584-0de0b05f8dd3-master.m3u8https://video.igem.org/videos/embed/j8mJTkB34WdNTxqhd3drTz9012022-09-30T09:28:15.062ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/chdih9bapbtkVWU1TKsxv2https://video.igem.org/lazy-static/thumbnails/881c362b-8d03-4fd7-86a8-a8e3c4f3f7cc.jpgMSP-Maastricht: inside-alginate-bead-animation (2022) [English]A video showing that our bacteria will be stored in an aginate hydrogel bead while performing desalination. The animation was created by our teammate Lara Alexandra Anderegg. Our wiki link can be found at https://2022.igem.wiki/msp-maastricht/ .https://static.igem.org/peertube/streaming-playlists/hls/5b580122-641a-48e1-8041-6ca76ac5448f/28aa628e-adbf-4af4-9fe0-696997f52628-master.m3u8https://video.igem.org/videos/embed/chdih9bapbtkVWU1TKsxv24032022-09-30T10:25:18.103ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iCvcWR5ut44188SsAZGf5khttps://video.igem.org/lazy-static/thumbnails/61888423-0366-4539-aa56-860de3655c75.jpgSJTU-BioX-Shanghai: HomePage (2022) [English]SJTU-BioX-Shanghai/home page/head videohttps://static.igem.org/peertube/streaming-playlists/hls/8ec421ba-7889-4e54-bdfa-c22f10e6eb83/6c467552-2c3e-4ebb-afe0-b9d82adf9e67-master.m3u8https://video.igem.org/videos/embed/iCvcWR5ut44188SsAZGf5k40162022-09-30T11:21:27.851ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/t9TSWCQba6M1DKxwK2FbzAhttps://video.igem.org/lazy-static/thumbnails/0868a094-ef41-46c8-9797-412ed69d5d80.jpgSheffield: The Test Tube Podcast (2022) [English]A big thanks to team Exeter for having us on their Test Tube podcast! It was lovely talking with them about our project and all of the science behind it!https://static.igem.org/peertube/streaming-playlists/hls/dbe4aa45-94e8-4a03-b7a5-d9cc5a6d9c0c/2a593c3f-738b-4263-972e-29ea5fad8a9f-master.m3u8https://video.igem.org/videos/embed/t9TSWCQba6M1DKxwK2FbzA1121072022-09-30T11:30:59.195ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/upj39NrmTYaB995fVKD5Z8https://video.igem.org/lazy-static/thumbnails/45205d66-d580-45b6-ac9f-04b96357d8a0.jpgWarwick: Pyre Landing (2022) [English]PyRe Landing page video. For wiki: https://2022.igem.wiki/warwick/indexhttps://static.igem.org/peertube/streaming-playlists/hls/e6011add-cba5-443c-a147-3149c8f2e299/db7b7d07-185c-4ba5-85a4-3da11421bce8-master.m3u8https://video.igem.org/videos/embed/upj39NrmTYaB995fVKD5Z81100292022-09-30T12:32:26.847ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/oktxpucqH3m3QxFAz3Bhovhttps://video.igem.org/lazy-static/thumbnails/b82b54ab-5cc4-47fd-b161-8fb34cbca0ab.jpgCambridge: Antithetic_Control (2022) [English]Animation showing how the antithetic integral controller works. https://2022.igem.wiki/cambridge/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/b4e127b9-e474-4968-a2ca-83ab4c4a6391/6f4106e4-abd8-4535-80cf-f4999a4fce5f-master.m3u8https://video.igem.org/videos/embed/oktxpucqH3m3QxFAz3Bhov250442022-09-30T15:18:21.706ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rGCkXXZBysnCUFxSoyj6N2https://video.igem.org/lazy-static/thumbnails/8a50abb2-3611-4815-b2e4-c1a412daec02.jpgThessaly: Software Application (2022)Our software application that visualizes real data to the location and shows how intense eutrophication is in this location.https://static.igem.org/peertube/streaming-playlists/hls/d0209d7f-3e1e-4a2f-a2bd-7a97dee4c5b1/2f93f79b-2ea2-41a8-9935-bd13096cd65b-master.m3u8https://video.igem.org/videos/embed/rGCkXXZBysnCUFxSoyj6N2540242022-09-30T19:49:14.631ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nHWUW3c2zWMWRw6gatFqXahttps://video.igem.org/lazy-static/thumbnails/3c02490e-50ef-4721-a2e4-0a1636be3fad.jpgULaval: 100 ns MD simulation of the first CP450 hybrid (2022)100 ns molecular dynamics simulation of the long anchor CP450 hybrid. The S. cerevisiae ER membrane is shown in grey. Made by Louis-Jacques Ruel. See more at https://2022.igem.wiki/ulaval/model.https://static.igem.org/peertube/streaming-playlists/hls/afeb3f5e-3672-4f7e-b62e-de209d2fb187/a60bf00b-c5a7-44ad-973f-289bd198d091-master.m3u8https://video.igem.org/videos/embed/nHWUW3c2zWMWRw6gatFqXa30342022-10-01T00:34:22.439ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4HiJCBv9a3srayuMYwk23uhttps://video.igem.org/lazy-static/thumbnails/76b9b57d-9887-4497-9819-7f4fe64444e6.jpgULaval: 100 ns MD simulation of the second CP450 hybrid (2022)100 ns molecular dynamics simulation of the short anchor CP450 hybrid. The S. cerevisiae ER membrane is shown in grey. Made by Louis-Jacques Ruel. See more at https://2022.igem.wiki/ulaval/model.https://static.igem.org/peertube/streaming-playlists/hls/1e0fd713-c26d-40f4-8f9d-e80cdd5bbecc/55b54297-3bb4-415b-a316-a38a14bb7552-master.m3u8https://video.igem.org/videos/embed/4HiJCBv9a3srayuMYwk23u30202022-10-01T00:35:44.453ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/oLmhj1UoVp8yy3B6GCXK5ahttps://video.igem.org/lazy-static/thumbnails/3a7434e1-8a79-4b92-a37f-fb5745192dea.jpgMcMaster_A: Header Video (2022) [English]The header video for the McMaster_A wiki. https://2022.igem.wiki/mcmaster-a/https://static.igem.org/peertube/streaming-playlists/hls/b85a466f-d82b-48ee-8588-4144985be495/822dcb36-e349-4d8e-8d22-b7369d07cfc9-master.m3u8https://video.igem.org/videos/embed/oLmhj1UoVp8yy3B6GCXK5a6602692022-10-01T02:23:48.824ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ca1qC1xT212agCBMA3a4bRhttps://video.igem.org/lazy-static/thumbnails/7f60856d-e462-4abe-bd86-28c06cf9d9fe.jpgMontpellier: SHERLOCK principle (2022)SHERLOCK technique developed by Kellner's team (Kellner, Max J et al. “SHERLOCK: nucleic acid detection with CRISPR nucleases.” Nature protocols vol. 14,10 (2019): 2986-3012. doi:10.1038/s41596-019-0210-2) is based on the Cas13a detection system. Guide RNA - target sequence recognition is the basic principle of this technique. https://static.igem.org/peertube/streaming-playlists/hls/5a567b15-6df4-4d75-9ea4-06eafb950d69/bc984555-e8fc-4d3c-8310-5bfe303c0bb5-master.m3u8https://video.igem.org/videos/embed/ca1qC1xT212agCBMA3a4bR2101342022-10-01T07:46:41.329Z#detection#sherlockYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sxDqbcQuitzzApsTWL2gi2https://video.igem.org/lazy-static/thumbnails/0351f57f-f565-47fe-824f-0c5d812c1ea2.jpgLZU-CHINA: ICII video (2022) [English]An educational campaign that unites teams from all regions of China.https://static.igem.org/peertube/streaming-playlists/hls/d6f8b891-60c8-4ca8-bc7c-50fbe5c7085f/71ca2ec0-67d7-401a-b699-280fea3b4d28-master.m3u8https://video.igem.org/videos/embed/sxDqbcQuitzzApsTWL2gi23920162022-10-01T09:37:08.606ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/v9rLdKfEBSBaRnTJc5Bnq6https://video.igem.org/lazy-static/thumbnails/45ca2209-789a-45ea-b06a-15fe1b8d01e9.jpgNJMU-China: Overview: NAD absorption, distribution, and metabolism (2022)This is the overview of the organs related to the absorption, distribution, and metabolism of NAD.https://static.igem.org/peertube/streaming-playlists/hls/ec06d913-2a2e-4e11-ace9-ba451ba2d801/a6270723-e8e2-46a3-ae24-e1ff9ae2f878-master.m3u8https://video.igem.org/videos/embed/v9rLdKfEBSBaRnTJc5Bnq650232022-10-02T06:53:00.423ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7y6yJf8Z3tJpXhrmDyHDPghttps://video.igem.org/lazy-static/thumbnails/de321de4-dfe6-40aa-aee7-3616ac680ba0.jpgNJMU-China: Absorption and distribution process of NAD (2022)This video shows how NAD is absorbed, metabolized, and distributed in the human body.https://static.igem.org/peertube/streaming-playlists/hls/35120fcc-407b-4c1f-9d78-dee5016248f1/190d11b3-be5a-4eb8-80fb-c0b67beaf91d-master.m3u8https://video.igem.org/videos/embed/7y6yJf8Z3tJpXhrmDyHDPg30182022-10-02T06:56:33.405ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vuAcapXK84Gt6mteudsuc7https://video.igem.org/lazy-static/thumbnails/8e7b8285-7b97-4e6e-833c-cb90eea21030.jpgFAFU: Education Video (2022) [English]FAFU: Education Video (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/eed6eb25-f244-4c7c-bf1f-da58112e1384/740f6c52-b300-4afb-806b-c34e75e414d9-master.m3u8https://video.igem.org/videos/embed/vuAcapXK84Gt6mteudsuc7111042022-10-02T07:46:25.734ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/d2nzdU5AU7ZCFvaybs4SHhhttps://video.igem.org/lazy-static/thumbnails/d72be3e0-ee35-4e8e-8feb-cfb3e58e7e6b.jpgUZurich: IBD Nanobiotics (2022) [English]Inflammatory Bowel Disease (IBD) comprises conditions in which the lining of the gastro-intestinal tract is chronically inflamed leading to symptoms like diarrhea, abdominal pain, bloody stools and fatigue. The exact etiology of IBD is a topic of extensive research whereby first hints point towards a multifactorial pathogenesis. Current treatment options are systemic and aim at modulating the immune system causing severe side effects. We, the UZurich iGEM Team, want to tackle the lack of targeted treatment options by developing a new microbe based therapy: IBD NanoBiotics. We modified E. coli Nissle 1917 by introducing a genetic circuit that can produce and secrete anti tumor necrosis factor (TNF) nanobodies upon selective induction by nitric oxide (NO) at the inflammation site. Along with our laboratory research, we have developed a predictive mathematical model and dedicated ourselves to outreach and education with a special focus on IBD patients. Here is the link to our wiki: https://2022.igem.wiki/uzurich/home Thank you to Len Roth for making this video.https://static.igem.org/peertube/streaming-playlists/hls/615eb3d0-7c9d-46ed-9307-96cff39b263a/6d11c075-de7a-47ee-b90b-543c9a1b293a-master.m3u8https://video.igem.org/videos/embed/d2nzdU5AU7ZCFvaybs4SHh12002312022-10-02T09:51:00.087ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/neMJg5hLYCDUXnhFrgUJgohttps://video.igem.org/lazy-static/thumbnails/cc7913ba-de12-4ef8-891f-b19e2f96a4d9.jpgEdinburgh-UHAS_Ghana: Water (2022)Video for the home page of the Edinburgh-UHAS_Ghana 2022 iGEM Team. Footage taken across Scotland by members of the team. https://static.igem.org/peertube/streaming-playlists/hls/abfcc31b-1cf0-4137-9578-94a00e739ad4/2949157b-183c-4422-875e-66b57772b6c9-master.m3u8https://video.igem.org/videos/embed/neMJg5hLYCDUXnhFrgUJgo54033642022-10-02T13:39:12.911ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vxRQ6iUT5jBGPSYSQZn3Hzhttps://video.igem.org/lazy-static/thumbnails/ac1751d6-928a-4c12-bea6-92f0ee870877.jpgCPU_Nanjing: Home (2022)This is the video used in our home page of our wiki.https://static.igem.org/peertube/streaming-playlists/hls/ef4bc94c-7bad-4b7f-b36f-51eaf7a7540b/6292d3a4-9bad-4bfb-ad9c-2064fcc358d9-master.m3u8https://video.igem.org/videos/embed/vxRQ6iUT5jBGPSYSQZn3Hz70372022-10-02T15:08:49.851ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/b7HTaf2LAgQiV1MvHjwKoghttps://video.igem.org/lazy-static/thumbnails/b20781f3-ea83-434e-97da-c8ee10161158.jpgAustin_UTexas: Bat Bridge (2022)Bats flying out of the South Congress Avenue Bat Bridge in Austin, TX. Video taken by Jeffrey Chuonghttps://static.igem.org/peertube/streaming-playlists/hls/51eba8f2-cf55-461c-b201-e8130748f047/256ae736-dde3-4bfb-93a5-93005a32b1ea-master.m3u8https://video.igem.org/videos/embed/b7HTaf2LAgQiV1MvHjwKog100532022-10-02T16:45:35.832ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qtMUuxHFt91LuS44imq8Dghttps://video.igem.org/lazy-static/thumbnails/cbda3282-3d9f-437f-adcf-6c92b38c8a5b.jpgAustin_UTexas: Education (2022) [English]Neil Tian interviews the people at South Congress Avenue Bat Bridge in Austin, TX to educate the general public about White Nose Syndrome and synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/c63cb319-edbc-4ce0-85d2-ac119682f94d/45adb71c-44e3-4d7f-8dfd-0b15ee159789-master.m3u8https://video.igem.org/videos/embed/qtMUuxHFt91LuS44imq8Dg25301252022-10-02T17:17:23.722ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/c5otMrxbSxove7Qc7NDNHXhttps://video.igem.org/lazy-static/thumbnails/7fe28895-f2c7-4efd-b2e6-1bf79dd449cd.jpgTUDelft: Model animation (2022)AN animation of the model with varying Kd values of BlcR to DNAhttps://static.igem.org/peertube/streaming-playlists/hls/59b15a81-06c6-4810-84fd-d99e2706b121/c1669cce-22d6-4977-b486-d2a3422a6e38-master.m3u8https://video.igem.org/videos/embed/c5otMrxbSxove7Qc7NDNHX7092022-10-02T21:50:47.767ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pdgaqb3RPCyr3mAJ5pg9Nhhttps://video.igem.org/lazy-static/thumbnails/a3839f01-dd09-414b-bcf0-43977b79a1d1.jpgJLU_China: Olfacmood (2022) - Project Promotion [English]**Title:** Olfacmood **Description:** Facing the negative emotions of sadness and anxiety, our project aims to combine Artificial Intelligence with synthetic biotechnology to construct an emotion recognition and regulation device. In the recognition part, we use Convolutional Neural Network for facial emotion recognition,smart bracelet to record heart rate,and finally multimodal emotion judgment through software. In the regulation part, we focus on the sadness emotion, identify the judgment and start the blue light signal, thus stimulating E. coli EL222 photosensitive protein, initiating KdcA and Adh1 to catalyze the synthesis of PPA into phenylethyl alcohol, and releasing it through the aromatherapy system to achieve the emotional calming. Based on the overall closed loop, we further explored more extensions of light sources and emotion regulation, such as anxiety recognition into red light initiation and release of linalool regulation. Also extended such as music, light multi-sensory functions, in order to better assist the odor emotion regulation. #Emotion recognition and regulation#， #Convolutional Neural Network #， #Aromatherapy system#， #Music, light multi-sensory functions#， #Artificial Intelligence with synthetic biotechnology#， #Multimodal emotion judgment#， #phenylethyl alcohol#， #Linalool # [Wiki](https://2022.igem.wiki/jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/bbf87563-dd09-43b5-ad08-124411abd664/65d5e517-ca01-4d7b-9d99-6bc9916623fd-master.m3u8https://video.igem.org/videos/embed/pdgaqb3RPCyr3mAJ5pg9Nh11701742022-10-03T01:20:34.098ZYES2022 Project PromotionsNOhttps://video.igem.org/w/uWb2y4yEbhHr9xmaZigRs3https://video.igem.org/lazy-static/thumbnails/ca3ef493-3c6b-4d08-a384-0990f6435a67.jpgIIT-Delhi: LEADer: Bacterial Biosorbant for Lead Recovery and Whole-Cell Oscilla... (2022) - Proj...**Title:** LEADer: Bacterial Biosorbant for Lead Recovery and Whole-Cell Oscillatory Biosensor **Description:** According to UNICEF, a third of the world s children are affected by lead poisoning, a challenge that may even prove to be fatal. Exposure to lead can be via contaminated air, water, food, and consumer products, which makes assessment and monitoring of lead contamination extremely crucial. We comprehensively solve this problem by addressing two needs - detection and recovery. At the low lead concentrations found in groundwater or even wastewater, current recovery methods are inefficient and uneconomical. We perform a comparative study on multiple lead-binding proteins - PbrR, its metal-binding domain and PbrR691 - by expressing them on the surface of Escherichia coli to develop a bacterial biosorbant for lead recovery with the highest degree of cell-surface display, affinity to lead and specificity. Lead, highly recyclable, can be desorbed from the surface for further use, generating value. We are also developing an oscillatory frequency-based whole-cell biosensor for efficient lead detection. [Wiki](https://2022.igem.wiki/iit-delhi)https://static.igem.org/peertube/streaming-playlists/hls/ea5039ab-ca53-4295-a0fd-2fa2359dc612/035cee45-c040-4efd-a556-c2ec66fa9430-master.m3u8https://video.igem.org/videos/embed/uWb2y4yEbhHr9xmaZigRs312102182022-10-03T02:07:50.267ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8z89TerpVzDsjC7x7gw9jBhttps://video.igem.org/lazy-static/thumbnails/777a2cf8-b282-498b-b90c-f7065f0084e5.jpgKAIT_JAPAN: Effective Biosynthesis of Cannabidiol via Saccharomyces cerevisiae (2022) - Project P...**Title:** Effective Biosynthesis of Cannabidiol via Saccharomyces cerevisiae **Description:** Stress can affect all parts of our life, including our emotions, behaviors, and physical health. These symptoms can be eased by using a substance called CBD. CBD is known to have relaxing and anti-inflammatory effects. CBD is extracted from hemp. The methods of extraction are complicated and costly. Therefore, CBD infused products are expensive. Our main goal is to produce CBD efficiently via Saccharomyces cerevisiae. The production of CBD requires two substances. These substances are, geranylgeranyl-PP(GPP) and olivetolic acid (OA). During the production of GPP, two rate-limiting enzymes are present. Therefore, by overexpressing these enzymes, we expect an increase in the production yield. OA should be added to the culture medium to produce CBD. However, OA is expensive. Therefore, we thought of producing OA in S. cerevisiae. We believe that this method of CBD production can be cost and yield effective. Therefore, making CBD infused products more affordable for consumers. [Wiki](https://2022.igem.wiki/kait-japan)https://static.igem.org/peertube/streaming-playlists/hls/3d4fec5e-cefe-4345-aa09-14b7d594dc77/75521450-2652-4fcf-bfd5-1845d7c090fa-master.m3u8https://video.igem.org/videos/embed/8z89TerpVzDsjC7x7gw9jB11301412022-10-03T04:36:21.539ZYES2022 Project PromotionsNOhttps://video.igem.org/w/6cJMGVacXZp1ixkLBTAtzPhttps://video.igem.org/lazy-static/thumbnails/bc01ddf7-8ead-494f-87d4-6f0a85e3e62f.jpgThailand_RIS: Bacteria-Battling Bombolitin (2022) - Project Promotion [English]**Title:** Bacteria-Battling Bombolitin **Description:** Ralstonia causes bacterial wilt in Solanaceous crops worldwide. In an attempt to combat this problem, farmers use pesticides. However, pesticides result in detrimental effects on the environment, consumers, and farmers. Our project aims to find an alternative to these harmful chemicals. By using a novel expression system in Escherichia coli, we can increase the production of bombolitin, an antimicrobial peptide that inhibits Ralstonia, with lowered cost and difficulty. [Wiki](https://2022.igem.wiki/thailand-ris)https://static.igem.org/peertube/streaming-playlists/hls/2a213e6b-77ef-475c-94ec-f4ba8cef0e55/16f55e04-8b32-4b3c-bbe5-f99e39c7ddc9-master.m3u8https://video.igem.org/videos/embed/6cJMGVacXZp1ixkLBTAtzP12003312022-10-03T04:52:31.146ZYES2022 Project PromotionsNOhttps://video.igem.org/w/4rHpYUqnHsCnWW5ure3vyAhttps://video.igem.org/lazy-static/thumbnails/8b4f0e4c-ddfe-4e40-8701-7b17fdc427a8.jpgELTE: NanoBlade (2022) - Project Promotion [American Sign Language]**Title:** NanoBlade **Description:** We are Team ELTE, and we have created NanoBlade, which could facilitate both tumor diagnostics and therapy! We engineered E. coli to selectively attach to cancer cells and colonize tumor tissues. These interactions are detectable via fluorescence, so with the help of the bacteria, tumors can be visualized. Under blue light, our bacteria release toxins into their environment, killing cancer cells locally. [Wiki](https://2022.igem.wiki/elte)https://static.igem.org/peertube/streaming-playlists/hls/1be2883d-56d6-40d1-98e4-a4774b7e9e36/93d87027-d4e2-4996-a9ab-e8c4cd38e85f-master.m3u8https://video.igem.org/videos/embed/4rHpYUqnHsCnWW5ure3vyA9602102022-10-03T07:11:53.464ZYES2022 Project PromotionsNOhttps://video.igem.org/w/vLu8GTB1WF5BTAhzbzZkGkhttps://video.igem.org/lazy-static/thumbnails/8b257ebd-ad01-441a-b519-dd09b46739b0.jpgTUDelft: system animation (2022)system animation https://static.igem.org/peertube/streaming-playlists/hls/f10f15a1-dff9-4069-bb3c-6589387e1f47/4fbb07e1-3d59-4e3e-b91e-371593f18a12-master.m3u8https://video.igem.org/videos/embed/vLu8GTB1WF5BTAhzbzZkGk6901102022-10-03T08:11:26.769ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uYULY71HnSEvBsZiFgUQPShttps://video.igem.org/lazy-static/thumbnails/a71fb48e-1d43-404a-ae1e-78af13287da6.jpgIntroduction to Judging 2022Introduction to Judging 2022https://static.igem.org/peertube/streaming-playlists/hls/eab20eba-79cd-4ba0-a711-0e3444132dc8/f5772108-3d33-45ea-8455-334c39df5381-master.m3u8https://video.igem.org/videos/embed/uYULY71HnSEvBsZiFgUQPS5100342022-10-03T10:14:29.814ZYESJudging CommitteeNOhttps://video.igem.org/w/pn4muKecPRBCeaR7ioVaaohttps://video.igem.org/lazy-static/thumbnails/ce1ae0a1-3fdc-430c-b6b3-fc742bc5872b.jpgJudging Expectations (2022)Judging Expectations (2022)https://static.igem.org/peertube/streaming-playlists/hls/bd32dffc-00e3-4294-9063-9b94c45b4cac/72143171-a86e-4dbd-b3e6-aadd591c5140-master.m3u8https://video.igem.org/videos/embed/pn4muKecPRBCeaR7ioVaao823042022-10-03T10:20:14.893ZYESJudging CommitteeNOhttps://video.igem.org/w/r2xGr1F6gNcPUfmtfmVWFrhttps://video.igem.org/lazy-static/thumbnails/c69cc912-a060-4903-98f3-7075ddca2aea.jpgHow does a Judging Session look like? (2022)How does a Judging Session look like? (2022)https://static.igem.org/peertube/streaming-playlists/hls/caabbe8a-2902-4970-a69e-bcd3d01dd18f/7ea6dc6e-53c7-4138-9ea8-690236eec2a8-master.m3u8https://video.igem.org/videos/embed/r2xGr1F6gNcPUfmtfmVWFr85805162022-10-03T10:30:15.818ZYESJudging CommitteeNOhttps://video.igem.org/w/uoTmFBJuEnikZqLfaP71fbhttps://video.igem.org/lazy-static/thumbnails/378ce015-408f-4e1d-8a41-ec18c192c799.jpgCSMU_Taiwan: Theme Song of Synthetic Biology (2022) [English]Since synthetic biology is not a prevalent subject to most people currently, we came up with the idea to write a song about synthetic biology. In addition to professional knowledge, we also promote our team values in the lyrics. Ｗe hope the delightful and catchy melody can attract more people who are interested in iGEM.https://static.igem.org/peertube/streaming-playlists/hls/e5f1e522-180d-4f6f-953a-21a16ff21436/d4a8158b-d8f0-408a-b41e-eec9eb3e382b-master.m3u8https://video.igem.org/videos/embed/uoTmFBJuEnikZqLfaP71fb182042022-10-03T11:07:53.343ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ueb5QbA2yD5Lo6h8xt5JsChttps://video.igem.org/lazy-static/thumbnails/fda8eb3e-1e42-40b6-bbfe-a3d8e82f46cf.jpgCSMU_Taiwan: Collab Theme Song (2022) [English]To make our theme song more international and promote synthetic biology more effectively, we translate the lyrics of the Theme Song of Synthetic Biology into the English version. Also, since we hope this song can gel with all iGEMers, we invite other teams to sing the song for us. Through this theme song of synthetic biology, we hope that this song can unite all iGEMers and make iGEM a co-benefit community. https://static.igem.org/peertube/streaming-playlists/hls/e496c3fa-3c09-45ec-b5f5-989d211c8a60/d19949dc-36ee-4805-a8d3-725c315bd9f8-master.m3u8https://video.igem.org/videos/embed/ueb5QbA2yD5Lo6h8xt5JsC183082022-10-03T11:19:30.164ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1r3cSuJmbvZ4TrVhoDFZmrhttps://video.igem.org/lazy-static/thumbnails/e07f6da9-9f5d-4480-aa53-b66038ac1056.jpgCSMU_Taiwan: No title (2022) [English]A short introduction of the project of CSMU_Taiwanhttps://static.igem.org/peertube/streaming-playlists/hls/037ef3f2-cb4f-4e62-aa55-52d3cc68484d/5490cba3-7e3b-46b9-b947-1def15a31221-master.m3u8https://video.igem.org/videos/embed/1r3cSuJmbvZ4TrVhoDFZmr73032022-10-03T11:27:02.007ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ntXLfRC9689kfG95i9NUpghttps://video.igem.org/lazy-static/thumbnails/7df7e37b-2de8-4537-9097-6d614941ba89.jpgTUDelft: SPYKE glass (2022) [English]TUDelft: SPYKE glass (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/adf75bdd-14a7-4531-9779-0144c5aa58e5/00c9e703-0daf-4bf2-87f2-f5ef31a2bcf1-master.m3u8https://video.igem.org/videos/embed/ntXLfRC9689kfG95i9NUpg21052022-10-03T15:29:45.499ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nLQNdYm5R2ZHiFBJJEcKZ9https://video.igem.org/lazy-static/thumbnails/7e31ba1a-18b3-4bd6-aa65-c9f709ff67ee.jpgBUCT-China: Cultured Meat (2022) - Project Promotion [English]**Title:** Cultured Meat **Description:** We will simulate the environment of cells in vivo, and use E.coli with independent dynamic regulation system to synthesize polyhydroxyl fatty acids with superior performanceas the scaffold material to make porous microspheres to promote the flesh-forming growth of animal muscle cells in vitro. And add collagen to restore meat more authentic taste. [Wiki](https://2022.igem.wiki/buct-china)https://static.igem.org/peertube/streaming-playlists/hls/b052b5be-4454-444a-8aa4-aac2a75e9156/464744ba-d3b3-4439-8975-1d6354aa3d47-master.m3u8https://video.igem.org/videos/embed/nLQNdYm5R2ZHiFBJJEcKZ911606132022-10-03T16:38:58.375ZYES2022 Project PromotionsNOhttps://video.igem.org/w/9MBvdpuzzfTMfBn6cgi67rhttps://video.igem.org/lazy-static/thumbnails/f7f31b87-12f7-4f4c-8c44-369713d26e64.jpgVilnius-Lithuania: Plate Model (2022) [English]Spinning animation of NanoFind plate 3D model.https://static.igem.org/peertube/streaming-playlists/hls/47277577-81ec-438c-988a-65cb22884861/7ba4c847-9819-4547-8ad2-1c8dd18e7d73-master.m3u8https://video.igem.org/videos/embed/9MBvdpuzzfTMfBn6cgi67r70582022-10-03T17:08:25.117ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/23XUfEApNHRtYwNz8k5JNJhttps://video.igem.org/lazy-static/thumbnails/ace8c68c-60b0-44ee-a4db-d773ec350409.jpgUIUC_Illinois: Curli Capture: Engineering bacterial biofilms to reduce nitrate p... (2022) - Proj...**Title:** Curli Capture: Engineering bacterial biofilms to reduce nitrate pollution. **Description:** Nitrate runoff, or the loss of nitrate nitrogen from agricultural systems, can lead to issues such as unsafe drinking water and overgrowth of plant life. To combat this issue, we have designed a nitrate-capture system utilizing curli proteins, which are self-assembling amyloid fibers secreted by E. coli that will form a mesh-like structure upon secretion. Our goal is to fuse the nitrate-capturing protein native to cyanobacteria, nrtA, to the curli monomeric unit, csgA. This fusion will be done with the SpyTag/SpyCatcher system, a two-part system that, upon contact, spontaneously forms an isopeptide bond. We are planning our capture system to be a cell-free mesh that can be encapsulated and placed near waterways in agricultural communities. However, we eventually want to modify our construct into a cellular system under the control of an inducible promoter that produces nitrate-capturing curli only in the presence of nitrate. [Wiki](https://2022.igem.wiki/uiuc-illinois)https://static.igem.org/peertube/streaming-playlists/hls/0883138c-5ddf-4d85-9d69-450958008dee/8ab83572-f8f1-461c-a86d-12e37c655e9d-master.m3u8https://video.igem.org/videos/embed/23XUfEApNHRtYwNz8k5JNJ12003912022-10-03T20:30:20.819ZYES2022 Project PromotionsNOhttps://video.igem.org/w/8vKZpdVVGbtPVwzTWELSoChttps://video.igem.org/lazy-static/thumbnails/d7910b1a-59a3-4c22-83e6-685c930777fa.jpgNMU_China: Model (2022) [English]NMU_China: Model (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3cd7a648-6827-4b01-bde4-9af6905a0268/5ca737e2-57f9-4af5-b84d-033f20f8a99e-master.m3u8https://video.igem.org/videos/embed/8vKZpdVVGbtPVwzTWELSoC41092022-10-04T02:24:04.395ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wBBKmcMGvPb82TgfByhVxphttps://video.igem.org/lazy-static/thumbnails/309f75d8-182e-4c46-8164-05b2b2179afb.jpgHainanU_China: NATer (2022) [English]HainanU_China: NATer (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/f7eb38cb-b6f3-43ee-8efe-58b4245096f1/6af2db2b-ee10-4f3b-9a45-126f35f03258-master.m3u8https://video.igem.org/videos/embed/wBBKmcMGvPb82TgfByhVxp30122022-10-04T03:28:57.707ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8kK2hgmCCQVfAX8YTJsshWhttps://video.igem.org/lazy-static/thumbnails/af8c02d6-9d52-41f0-a563-61244af9f11c.jpgNMU_China: Automata (2022) [English]NMU_China: Automata (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3b719d94-746e-48e6-9bbc-a243ed86678e/98e50683-86fb-499c-84f7-0a94dea3dc7e-master.m3u8https://video.igem.org/videos/embed/8kK2hgmCCQVfAX8YTJsshW1600122022-10-04T04:29:49.182ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/b3WsPhsn9jdks3UZcZ6WM4https://video.igem.org/lazy-static/thumbnails/81d1b7c9-0af9-44ce-b21d-3e605d495793.jpgNMU_China: Software (2022) [English]NMU_China: Software (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/51647010-02e6-4ece-98ff-7e832a6bc145/892858a5-9ae5-474e-85e9-1c6075b1f83b-master.m3u8https://video.igem.org/videos/embed/b3WsPhsn9jdks3UZcZ6WM481082022-10-04T04:32:04.224ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dDVcpAz39xLHeHxDD9bgMMhttps://video.igem.org/lazy-static/thumbnails/28a59735-9dd2-4a66-8bea-21220b57bf8e.jpgNMU_China: How our project runs (2022) [English]Animation of how our project's synthetic gene circuits workshttps://static.igem.org/peertube/streaming-playlists/hls/6678f78e-c4eb-4d7e-94b4-5a0f9bcff96b/f2dc2352-4ff5-4dcc-b63f-09826f7c294a-master.m3u8https://video.igem.org/videos/embed/dDVcpAz39xLHeHxDD9bgMM2480162022-10-04T06:30:01.522ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9K4QJxN3wiUXwufwweYhqyhttps://video.igem.org/lazy-static/thumbnails/952a1833-86e3-4870-bc84-064aa637af9e.jpgCHINA-FAFU: HP Education (2022)The "Paris Agreement" proposes to limit global warming to within 2°C above the industrialized level, and strive to keep it within 1.5°C. June 5th and June 8th are World Environment Day and World Oceans Day respectively. In response to the 2022 United Nations Ocean Conference and the 2022 United Nations Conference to Support the Implementation of Sustainable Development Goal 14, we decided to organize and planning the academic exchange activity of "Blue Carbon Economy, 'Source' Drives the Future". https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/46cc7540-b143-44a8-bd69-0e342e5605a0/449f7421-6337-4a94-a2eb-fc429fa5ee59-master.m3u8https://video.igem.org/videos/embed/9K4QJxN3wiUXwufwweYhqy62062022-10-04T10:56:47.168ZCHINA-FAFUEducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/o6vCwgoVfjxGzc9gKC4qSfhttps://video.igem.org/lazy-static/thumbnails/d52b6c41-37b8-4db5-b674-c10c30db4003.jpgUCopenhagen: What does the ocean mean to you? (2022) [English]It was a long journey for us before we came across our project topic, which is related to conservation of the marine environment. A lot of reasoning went behind choosing this project, like achieving the Sustainable Development Goals, helping the fishermen by developing better gear, and conserving the oceans but the most important reason why we chose this topic, is because of personal connection. All 9 of our team members have a personal connection to marine life and a special place in their hearts for the natural water bodies. Be it growing up around the sea, being the daughter of a merchant navy officer, a person who loves sailing, a scuba diver, a marine photographer, or simply a person who enjoys swimming, we feel a plethora of emotions towards the Ocean. We thought, why only keep these emotions to ourselves and not share them on a global level? So, we decided to get in touch with other iGEM teams, so that they can express their emotions towards the Ocean. We collected, among several teams, one word that describes their feelings towards the ocean but in their native tongue and asked them to film a video saying this close to a waterbody and obtained a beautiful result.https://static.igem.org/peertube/streaming-playlists/hls/b2ee0781-0c40-4e58-bc2c-323c2ead5c1a/c8be25e6-8ccf-4599-aead-1dc0f1085b41-master.m3u8https://video.igem.org/videos/embed/o6vCwgoVfjxGzc9gKC4qSf970242022-10-04T14:27:09.222ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bhe6gcUfAHMUBgWLJ6heoGhttps://video.igem.org/lazy-static/thumbnails/8f7e3970-26c2-4b49-8a89-ec13210092dd.jpgUCopenhagen: Fun video (2022) [English]During a video collaboration with iGEM Team Methathess 2022, we prepared a one-minute video in front of Rosenborg Castle, a monumental and historical renaissance castle in Copenhagen that was initially built to serve as a royal summer house residence. There, we introduced our team and project to other iGEM teams around the world. We are looking forward to seeing how the collaboration evolved and the result of the final video.https://static.igem.org/peertube/streaming-playlists/hls/533f5ab7-cb19-4f1d-ab19-a8f291dfcf08/dffdd5c4-5e5a-4005-ba8c-2e8e5e4b984f-master.m3u8https://video.igem.org/videos/embed/bhe6gcUfAHMUBgWLJ6heoG500172022-10-04T14:47:59.669ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jNpKwM6LTDiMgazBPDoZedhttps://video.igem.org/lazy-static/thumbnails/b8e10d20-fa87-4a01-ac1c-b5cb5689ed49.jpgCHINA-FAFU: Education (2022)The "Paris Agreement" proposes to limit global warming to within 2°C above the industrialized level, and strive to keep it within 1.5°C. June 5th and June 8th are World Environment Day and World Oceans Day respectively. In response to the 2022 United Nations Ocean Conference and the 2022 United Nations Conference to Support the Implementation of Sustainable Development Goal 14, we decided to organize and planning the academic exchange activity of "Blue Carbon Economy, 'Source' Drives the Future". https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/983f5898-e502-46ba-add3-68e471a27b62/4617f750-aa60-4874-8679-1068d45dc408-master.m3u8https://video.igem.org/videos/embed/jNpKwM6LTDiMgazBPDoZed620222022-10-04T15:32:45.949ZEducationCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pgQGkZZhcM9YCp5JiNRmhjhttps://video.igem.org/lazy-static/thumbnails/7c8035b1-9288-493e-afbf-ccc0e89793ec.jpgEPFL: HESTIA Project Snapshots (2022)Snapshot of various part of the project, to illustrate our workhttps://static.igem.org/peertube/streaming-playlists/hls/bc785aff-6951-4ff6-a2d7-81dd3579742a/f0e90889-d83e-4304-a126-ee54aafa201f-master.m3u8https://video.igem.org/videos/embed/pgQGkZZhcM9YCp5JiNRmhj18092022-10-04T16:35:45.623ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/e2nCkP6xpq2SSK9KNHYotNhttps://video.igem.org/lazy-static/thumbnails/092e43d3-7f3d-4303-ae52-86a5e920bdc2.jpgSCUT-China: Running! plasmind (2022) [English]One of our attracting activities, an orienteering combined perfectly and subtly with biology knowledge!https://static.igem.org/peertube/streaming-playlists/hls/6977dfcb-c084-4739-89ca-5920007d2a34/da5aa015-f56a-4230-a2f1-103f1d9c2a86-master.m3u8https://video.igem.org/videos/embed/e2nCkP6xpq2SSK9KNHYotN63032022-10-05T01:12:39.159ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ot9YVVaNbVK7jYZcCxn669https://video.igem.org/lazy-static/thumbnails/52a4ffba-61ba-4cbb-9d30-d1b76874ed71.jpgCHINA-FAFU: Education (2022)Classes for kindergarteners https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/b5f3aad9-a38b-4932-a305-c65fb009ced6/77210415-35a8-4352-9e07-1fda5f16cbb4-master.m3u8https://video.igem.org/videos/embed/ot9YVVaNbVK7jYZcCxn669550172022-10-05T06:39:57.060ZEducationCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fuMRbPVHJizC7kkb1qVD1Phttps://video.igem.org/lazy-static/thumbnails/306727f1-8d37-4266-9ce5-685aed259ca5.jpgCHINA-FAFU: Education (2022)Classes for primary school https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/7565058b-a47f-4237-834a-502bc69a272b/bcc2e891-6ed9-47e8-ab62-e07c7dc4faf8-master.m3u8https://video.igem.org/videos/embed/fuMRbPVHJizC7kkb1qVD1P710192022-10-05T06:43:42.848ZCHINA-FAFUEducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5d2UgbHgVnbUB8MXZVQCd7https://video.igem.org/lazy-static/thumbnails/679f56d0-4472-4270-a428-bf7b3be600e8.jpgCHINA-FAFU: Education (2022)2022 CHINA-FAFU "Handmade What We Love" environmental Handmade class Nature is not just a "playground" for outdoor enthusiasts，and human survival is also completely dependent on the health of the natural environment. We know that a large number of non-biodegradable plastic products enter the ocean every year, trapping and killing Marine animals. And this situation is a threat to human beings.Most of us have not thought about how plastic will affect us genuinely...With this thought in mind, we and the College of Life Science, Fujian Agriculture and Forestry University jointly held the "Hand-making What We Love" public welfare and environmental protection handicraft class on June 3 this year. https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/2212a6c5-a407-4633-a997-ff3ecf165d7e/9db38259-ac8d-4d32-81c0-6b7ffa5139c5-master.m3u8https://video.igem.org/videos/embed/5d2UgbHgVnbUB8MXZVQCd774052022-10-05T06:46:21.021ZEducationCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9WMDzntCvSQ4iLNrh6eVq8https://video.igem.org/lazy-static/thumbnails/3783a0ce-5394-481d-838a-4bdc05ddaca6.jpgCHINA-FAFU: Integrated Human Practices (2022)According to the sixth United Nations Sustainable Development Goal: Everyone should have the right to enjoy clean water and use water freely. So our team contacted the campus wastewater treatment plant from this perspective, starting with the nearest community wastewater treatment plant to understand and explored a new model of biological pollution treatment based on the original equipment combined with the microalgae water purification technology. https://2022.igem.wiki/china-fafu/integrated-human-practiceshttps://static.igem.org/peertube/streaming-playlists/hls/486f6783-51c2-46db-8a30-e60a850e7e83/cc667dfd-5b7a-4a51-9990-59bb84f55067-master.m3u8https://video.igem.org/videos/embed/9WMDzntCvSQ4iLNrh6eVq861012022-10-05T06:57:54.453ZCHINA-FAFUIntegrated Human PracticesYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fwdhqm2ZKChscxzBMDqxgshttps://video.igem.org/lazy-static/thumbnails/bea83df5-8716-4c02-8bc1-572fa703883f.jpgCHINA-FAFU: Education (2022)This year, our team is focused on developing new opportunities for individuals in the field of synthetic biology. We are encouraged to create an educational environment that encourages open dialogue between groups and synthetic biology, and our ultimate goal is to foster mutual learning and open discussion among audiences. Therefore, at the end of May this year, we carried out a kindergarten publicity activity of "Hearts with children, protect Qingyuan" for the kindergarten affiliated to Fujian Agriculture and Forestry University, which was a complete success. The two-hour presentation allowed us to fully communicate with the children. Their response was impressive and we had a long and very interesting discussion with them during the presentation. The topic of scientific water treatment came up again, and even quite a few people joined the discussion during the presentation, which reassured us that our idea of​providing environmentally friendly technologies for sewage treatment is very important. https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/7597d2f6-2968-48c9-bd2f-cdceb2ea794c/308c5080-6498-445d-82ec-3cea874959eb-master.m3u8https://video.igem.org/videos/embed/fwdhqm2ZKChscxzBMDqxgs470152022-10-05T07:02:15.324ZEducationCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3Swy7erTwoDbDgz7dPbGgGhttps://video.igem.org/lazy-static/thumbnails/30cfae16-da8f-40e5-b1b2-436a26d69ead.jpgCSMU_Taiwan: Let’s get into the world of dry lab with iGEMers (2022) [Mandarin]A day of iGMers in the dry lab.https://static.igem.org/peertube/streaming-playlists/hls/17404b8d-adbb-46cb-a3d4-2d0470e1a12e/69b8513e-271f-47d7-b48f-c59376414995-master.m3u8https://video.igem.org/videos/embed/3Swy7erTwoDbDgz7dPbGgG821012022-10-05T08:12:54.859ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mQPJUmkr88MdqvjMQTbtVJhttps://video.igem.org/lazy-static/thumbnails/410121b6-bf3a-4ec3-8c11-394fdb2d0c4a.jpgCHINA-FAFU: Integrated Human Practices (2022)We realized that people from different geographic regions, social and economic backgrounds, age groups and other demographics have a wide range of understanding of scientific concepts. Keeping this in mind, in July this year, we contacted Xiejian Village in Yangkou Town, Shunchang County, Nanping City, and with official permission we conducted an offline exchange and field research for a wide range of groups. We hope to introduce the concept and use of carbon sinks to farmers through this communication, and to bring the importance of synthetic biology and the carbon cycle to the people’mind. https://2022.igem.wiki/china-fafu/integrated-human-practiceshttps://static.igem.org/peertube/streaming-playlists/hls/a8c7e511-4c55-4ef4-bbd3-bb7eb8fe67f8/fd3ad997-9c3d-482a-b911-82c00953f8e5-master.m3u8https://video.igem.org/videos/embed/mQPJUmkr88MdqvjMQTbtVJ52022022-10-05T07:05:44.769ZCHINA-FAFUIntegrated Human PracticesYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qz1wu4BTgB2rFaJuwJpnKfhttps://video.igem.org/lazy-static/thumbnails/12746482-d04e-44d8-8225-1b75fb56c9a0.jpgCSMU_Taiwan: What a podcastor would be like？Let’s dive in! (2022) [Mandarin]Podcast recording in CSMU_Taiwan.https://static.igem.org/peertube/streaming-playlists/hls/c6f73237-0431-45a1-9a4e-ba92c9bfa7b8/193e9620-61f5-4325-9542-6c2c3113cd53-master.m3u8https://video.igem.org/videos/embed/qz1wu4BTgB2rFaJuwJpnKf498002022-10-05T08:58:22.113ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sTBTCM4AX6pZPoXLgB6VMihttps://video.igem.org/lazy-static/thumbnails/24b2e7e1-b0da-4e73-98ee-212484b3744d.jpgCHINA-FAFU: Education (2022)We have been thinking that the way of promoting marine conservation should not just be limited to the listening format of knowledge lectures and mass communication sessions. We adopted a brainstorming approach and finally settled on a new plan: to hold a special, interesting and innovative fashion show! We contacted the organization Daimo Dandelion to co-organize a fashion show with the theme of ocean conservation.The participants of the fashion show were mainly children, who brought out the unique childishness and creativity of this age group, and finally presented a wonderful fashion show stage! Ocean pollution is a heavy topic, and this event perfectly solved the difficulty of spreading knowledge and brought children to think about ocean pollution in a visual and more impressive way. https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/d9c2a7d3-f149-402e-ab28-ac1da552af8f/1e42c7ad-a10c-4553-8518-9a8ef7727d65-master.m3u8https://video.igem.org/videos/embed/sTBTCM4AX6pZPoXLgB6VMi360112022-10-05T07:11:05.579ZCHINA-FAFUEducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2ZqTWBVohLvucJENn4Vu9Jhttps://video.igem.org/lazy-static/thumbnails/b4320487-cf49-4a3b-8824-23c1d8e428ce.jpgCSMU_Taiwan: Meetup Conference in NCKU Tainan (2022) [English]Taiwan iGEM Meetup Conference in NCKU Tainan.https://static.igem.org/peertube/streaming-playlists/hls/101de03f-f331-4c26-8247-c9b23297b802/67365f18-2084-4158-9bd1-0984d363454b-master.m3u8https://video.igem.org/videos/embed/2ZqTWBVohLvucJENn4Vu9J786052022-10-05T10:34:18.994ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nDR32kTGvUSfjgy4aGxM8Xhttps://video.igem.org/lazy-static/thumbnails/6b2941e7-c68a-42e7-9937-f1742a47fb43.jpgCHINA-FAFU: Integrated Human Practices (2022)After a period of collecting and searching, our attention was focused on Fujian Shenliu Group - a company specializing in the production of spirulina products. As a unit of Spirulina project in the UN South-South Cooperation Network Demonstration Base and a national health food GMP certified enterprise, Shenliu Group has a complete and clear industrial chain of Spirulina product processing, and has built a corporate industrial production tourist attraction, constantly popularizing relevant Spirulina knowledge to the public, and equipped with advanced instruments to be in the forefront of the times. We contacted Mr. Xie Jinjian, the CEO of the group, through online communication and proposed to exchange many ideas about the microalgae industry. Eventually, Mr. Xie Jinjian said he could come to visit the corporate development factory and welcomed our visit. https://2022.igem.wiki/china-fafu/integrated-human-practiceshttps://static.igem.org/peertube/streaming-playlists/hls/af58a671-81bf-402e-ab83-87760037f6d9/093bbd28-f4fd-4c73-a61d-dec335512f11-master.m3u8https://video.igem.org/videos/embed/nDR32kTGvUSfjgy4aGxM8X120022022-10-05T07:17:08.304ZCHINA-FAFUIntegrated Human PracticesYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1aZiVXV1TeBhgy3VmuGfVAhttps://video.igem.org/lazy-static/thumbnails/f961c669-c4da-41e0-beaa-9da4037fb0d5.jpgBiodiversity Youth Leadership Program Workshop: Introduction to CBD Convention and Scientific Dip...The first thematic workshop of Biodiversity Youth Leadership Program. The workshop is about "CBD convention and key topics relevant to synthetic biology" , provided by Prof Maria Mercedes Roca.https://static.igem.org/peertube/streaming-playlists/hls/0165030e-dca2-4197-8f2a-fd210d1266dc/135c788a-b63a-49ca-a89d-4a13f06cf158-master.m3u8https://video.igem.org/videos/embed/1aZiVXV1TeBhgy3VmuGfVA4516032022-10-05T08:02:46.016ZYESiGEM FoundationNOhttps://video.igem.org/w/bcFSHAyEmU4mSHniMUHhwhhttps://video.igem.org/lazy-static/thumbnails/d1f677f7-010f-426b-a2d1-3b68afa310b7.jpgCSMU_Taiwan: A Day of iGEMers in wet lab | Cell Culture, Pipetting, Lab introduction (2022) [Mand...A Day of iGEMers in the wet lab.https://static.igem.org/peertube/streaming-playlists/hls/529d243d-7817-426f-82fe-71bc46a429a4/e917b801-e45d-41a3-8e5e-3ed0ee952caa-master.m3u8https://video.igem.org/videos/embed/bcFSHAyEmU4mSHniMUHhwh543092022-10-05T11:00:20.468ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/e3fLQTjgBwzZhfC7nzLqQbhttps://video.igem.org/lazy-static/thumbnails/35d53989-1e09-43c7-b651-13716aae4751.jpgBio-Brussels: Effect of salt on plants (2022) [English]In this video the effect of salt on plants is explained. Voice-over: Ines Robberechts Video-editing: Ines Robberechtshttps://static.igem.org/peertube/streaming-playlists/hls/699764f7-4d26-430f-9a53-8d74362973da/2a890a0e-146c-4b10-928c-0afa56b3df99-master.m3u8https://video.igem.org/videos/embed/e3fLQTjgBwzZhfC7nzLqQb88082022-10-05T09:45:19.934ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/f8ffu8CiJ7MdE7JQMsjoHzhttps://video.igem.org/lazy-static/thumbnails/12c1a003-9dbe-405c-a082-f14c0bb2135b.jpgCU_Egypt: Logo video (2022)Loading Video used for Home Page https://static.igem.org/peertube/streaming-playlists/hls/7262ede9-923d-402f-b264-09bee33d6113/40cfbb44-09cb-4a4b-b04b-e3aa345d034d-master.m3u8https://video.igem.org/videos/embed/f8ffu8CiJ7MdE7JQMsjoHz13042022-10-05T10:05:06.187ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7GD6HJMzrnnbrTQcfkKb9Khttps://video.igem.org/lazy-static/thumbnails/e830e46b-3f85-4bbc-8801-4d745c42ee3a.jpgPatras_Medicine: Product Description (2022) [English]Non Deliverable for iGEM 2022https://static.igem.org/peertube/streaming-playlists/hls/36437212-64e4-4465-a751-b471366e4acb/f389d69e-372c-40f8-9bfe-ce650da30032-master.m3u8https://video.igem.org/videos/embed/7GD6HJMzrnnbrTQcfkKb9K113042022-10-05T11:22:09.018ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4sdiQqxhmm39rbdVB7REJkhttps://video.igem.org/lazy-static/thumbnails/9c0cad26-741b-4cf0-ba0d-ef25e0d9c422.jpgTU-Eindhoven: Education - Challenge day (2022) [English]This video is an impression about the challenge day, the educational day organized by iGEM TU Eindhoven. The video is spoken in Dutch but English subtitles are added, enjoy watching! wiki: https://2022.igem.wiki/tu-eindhoven/ Credits: Alesander via Decate Mousahttps://static.igem.org/peertube/streaming-playlists/hls/1bf456b9-4ea7-4bf2-8842-218b29930f17/bc42b102-9719-41b1-bd96-cc103662931e-master.m3u8https://video.igem.org/videos/embed/4sdiQqxhmm39rbdVB7REJk1730512022-10-05T15:03:04.304ZEindhoveneducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ggBqVPgvCMo2ffTX7k1Mkshttps://video.igem.org/lazy-static/thumbnails/9341c1e7-7a81-4446-86aa-d32280ef25bd.jpgWarwick: PyRe Landing Video (2022) [English]PyRe Landing Page Video: Team Warwick Wiki Link: https://2022.igem.wiki/warwick/index https://static.igem.org/peertube/streaming-playlists/hls/7ba71222-2ccb-45d8-bf74-50264d6b3aec/bc24d013-09c2-48db-b7a5-4a6f3c9de7da-master.m3u8https://video.igem.org/videos/embed/ggBqVPgvCMo2ffTX7k1Mks230472022-10-05T15:10:53.827ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/j23UAtpgDnPy5KBMXdkf4Shttps://video.igem.org/lazy-static/thumbnails/32638a07-9c98-4898-9696-37c3882257ab.jpgSeoul_Korea: Pinesorb (2022) [English]pinesorb Wiki: https://2022.igem.wiki/seoul-koreahttps://static.igem.org/peertube/streaming-playlists/hls/91ea07f1-7af9-4c88-a70a-4134bfe06fb0/32078d45-1e71-4756-976c-0a6f51d403f6-master.m3u8https://video.igem.org/videos/embed/j23UAtpgDnPy5KBMXdkf4S2705732022-10-05T16:08:23.386ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/e2uZgDtDiGZa6tUPAWViw1https://video.igem.org/lazy-static/thumbnails/4e78b406-c180-4609-9a9d-330e9234f8c2.jpgCSMU_Taiwan: Learn with Cellamon - EP1 What is iGEM? (2022) [English] [Learn with Cellamon] EP1 What is iGEM?https://static.igem.org/peertube/streaming-playlists/hls/697c6914-f119-41c4-954c-243076f9e1d8/6a9dc6bd-b669-476a-a3c0-7bc53e926b83-master.m3u8https://video.igem.org/videos/embed/e2uZgDtDiGZa6tUPAWViw1210062022-10-05T17:39:48.012ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9NioFvyaHuMi6BPcZq54n4https://video.igem.org/lazy-static/thumbnails/ad1394a4-6a43-4048-a287-04ce2f1aef08.jpgCU_Egypt: Egyptian iGEM meetup (2022) [English]A quick highlight of the Egyptian iGEM meetuphttps://static.igem.org/peertube/streaming-playlists/hls/47400a52-4f62-48ae-9683-ebdddd642231/6a6da9e0-694f-4a76-a0b0-d9065d76d101-master.m3u8https://video.igem.org/videos/embed/9NioFvyaHuMi6BPcZq54n4390122022-10-05T19:05:48.529ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2zmqKbLh5q9u8kRTXUNQVdhttps://video.igem.org/lazy-static/thumbnails/17124629-3c0c-45e1-a9a4-d92ea6cbc764.jpgCU_Egypt: Synbiotech event (2022) [English]Our first big event with college student explaining syn-bio principles and ways for constructing projects.https://static.igem.org/peertube/streaming-playlists/hls/0cc1457c-5501-4b70-8f58-efe60a3fdcde/55cfa6dc-ded3-4418-bfca-203638118097-master.m3u8https://video.igem.org/videos/embed/2zmqKbLh5q9u8kRTXUNQVd1850142022-10-05T19:18:59.027ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8NTcUftpfkfJQ8YXeS7r7Xhttps://video.igem.org/lazy-static/thumbnails/b6c84ff7-49e5-49e7-bb00-62aecaddfc6a.jpgCU_Egypt: miniGEM competition in Cairo university (mini vlog) (2022) [English]miniGEM competition held by CU_EGYPT team as a simulation of the grand iGEM competition in addition to 3 workshops preparing students and get them into syn-bio world.https://static.igem.org/peertube/streaming-playlists/hls/3f3bbd88-1523-4977-98c0-7a8d4adac007/8f8309c2-e562-4440-898b-4b4f748d2081-master.m3u8https://video.igem.org/videos/embed/8NTcUftpfkfJQ8YXeS7r7X970462022-10-05T19:26:00.367ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8obHhMxQQqi3nMPiiEpnHrhttps://video.igem.org/lazy-static/thumbnails/a545fdd2-ceb6-4137-addf-829be83225c6.jpgCU_Egypt: Judges review about our miniGEM competition held in Cairo University (2022) [English]In our miniGEM competition we made sure that the simulation is quite close to the real one, so we contacted people with a way big experience with iGEM and let them be the judges for the projects of the teams of the mini competition. We are very grateful for their contribution and thanks for every one of them.https://static.igem.org/peertube/streaming-playlists/hls/3bc8ef5b-ca8a-42ad-8169-aa7bca34edaf/9c9df2d7-68a3-49e9-ada4-556396b4027b-master.m3u8https://video.igem.org/videos/embed/8obHhMxQQqi3nMPiiEpnHr1720122022-10-05T19:41:00.476ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ir6y5MmE2DQ5ZgtzXgdoEuhttps://video.igem.org/lazy-static/thumbnails/07d709e9-f852-4cc2-b4ae-c888db3a3383.jpgCU_Egypt: Our meeting with our inspiration team CU 2019! (2022) [English]CU 2019 was our first introduction to iGEM and after we made up our team, we were very eager to meet them and get some of their experience.https://static.igem.org/peertube/streaming-playlists/hls/8d2c5fab-f1e1-4cf8-a82e-8f13cffc8fc0/4adfccfd-de11-4df5-9b0e-23162ed617ea-master.m3u8https://video.igem.org/videos/embed/ir6y5MmE2DQ5ZgtzXgdoEu1110122022-10-05T19:53:03.418ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/f4N6uZjzYprP5yWhYTxLVShttps://video.igem.org/lazy-static/thumbnails/562616d7-4d3b-4789-99d9-aca21fc436b9.jpgCU_Egypt: tau phosphorylation (2022) [English] tau phosphorylation https://static.igem.org/peertube/streaming-playlists/hls/71e79459-c0ba-44ff-be01-c2e4e204e56c/a126b898-6c3c-4dda-97e1-254c406a86cc-master.m3u8https://video.igem.org/videos/embed/f4N6uZjzYprP5yWhYTxLVS5011902022-10-05T20:09:01.796ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/11yKsEzYwd5iqFMBH1As5Khttps://video.igem.org/lazy-static/thumbnails/7444482f-64d8-4ca9-a058-b2e1fcbcca0c.jpgPatras_Medicine: Loading (2022) [English]Loading iconhttps://static.igem.org/peertube/streaming-playlists/hls/00142eb6-ce58-4953-ad0c-f5625797d4eb/6471c9c8-cfa8-48c3-879c-eeb19407e07b-master.m3u8https://video.igem.org/videos/embed/11yKsEzYwd5iqFMBH1As5K60102022-10-05T20:42:11.535ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uAzof1kNHEcZBQePnmjvHAhttps://video.igem.org/lazy-static/thumbnails/f979b704-9b6a-483f-81c5-7d5edf6dd9ec.jpgPatras_Medicine: Intro (2022) [English]Intro Homepage videohttps://static.igem.org/peertube/streaming-playlists/hls/e793be73-ed5b-477a-9ca9-19ae9ab0d0f0/88780ce8-2496-4dc3-b7ca-119edb192048-master.m3u8https://video.igem.org/videos/embed/uAzof1kNHEcZBQePnmjvHA130722022-10-05T20:49:03.900ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8njvHs5rDVDpdd3fP1yA8uhttps://video.igem.org/lazy-static/thumbnails/78d13148-cef5-46ac-8053-b5734ad701a1.jpgCPU_Nanjing: Hardware (2022)This is the video about the operation of our hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/3ba9ff98-0580-4a86-8b42-d6a652d9c25a/6e387dd0-cf3d-44ea-a83d-8c2d079b7fb9-master.m3u8https://video.igem.org/videos/embed/8njvHs5rDVDpdd3fP1yA8u2220192022-10-06T11:50:13.760ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wWMjsWbrHYnhhUBGTF5f1Thttps://video.igem.org/lazy-static/thumbnails/7e52b343-ac84-454b-8818-a941e20ee979.jpgTUDelft: PURE system (2022)TUDelft: PURE system (2022)https://static.igem.org/peertube/streaming-playlists/hls/fa984076-5c48-4c56-bcc2-a797420e329b/7925915f-c524-4f2d-b464-1e8affd9c799-master.m3u8https://video.igem.org/videos/embed/wWMjsWbrHYnhhUBGTF5f1T290182022-10-06T11:52:04.771ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2wdcYTvVVmbM8EBsizPAcAhttps://video.igem.org/lazy-static/thumbnails/31533ee7-8a47-41bf-b822-15f22ab62a75.jpgTUDelft: capacitance (with and without GHB) (2022)TUDelft: capacitance (with and without GHB) (2022)https://static.igem.org/peertube/streaming-playlists/hls/0c50f96d-456e-41d2-915e-94f7c9be7f70/229934d6-c0bf-4178-b280-3bb8e04248a9-master.m3u8https://video.igem.org/videos/embed/2wdcYTvVVmbM8EBsizPAcA480142022-10-06T11:53:10.595ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qJDDGpLpJ7CqE1mYQVN63ihttps://video.igem.org/lazy-static/thumbnails/87a3dcd7-c949-46c6-81b2-8fc0f260e60c.jpgCityU_HongKong: A day at Urban Mushroom (2022) [English]**The 2022 CityU iGEM Team - SeCure - visited the Urban Mushroom Farm in Hong Kong.** Our team spoke to the founder, Russell, to learn more about the process of mushroom cultivation and his opinion as a mushroom agriculturist on our project. He expressed the need to raise public awareness of genetically modified technology as the topic raised many ethical concerns. **He believed our project was a step in the necessary direction to prove to the general public that through genetic modification comes advancements to the daily life of individuals, and with our project comes the development of a compound with anticancer properties.** The trip was insightful to learn about the fundamentals of mushrooms and better understanding the appropriate approach to the fungi used in our project whilst raising awareness of mushrooms and the many benefits of genetically modified technology. Visit our wiki page to learn more about our project: https://2022.igem.wiki/cityu-hongkonghttps://static.igem.org/peertube/streaming-playlists/hls/c84fc4ce-e214-491e-9859-5eccf52b43b9/71281d90-d61f-423e-a5df-d27b34cbdcc3-master.m3u8https://video.igem.org/videos/embed/qJDDGpLpJ7CqE1mYQVN63i4900122022-10-06T13:06:18.407ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rqLkkk2dSAWuFTiLyeS6CZhttps://video.igem.org/lazy-static/thumbnails/902a52a8-7909-415c-ac33-d2e0ce58bd56.jpgImperial_College_London: Dead Farm Landingpage (2022)Wiki landing page for Imperial College Londonhttps://static.igem.org/peertube/streaming-playlists/hls/cde9a36b-f6d7-483d-8634-c19026d77235/b845bed7-9e84-4952-8421-f131af3d2598-master.m3u8https://video.igem.org/videos/embed/rqLkkk2dSAWuFTiLyeS6CZ15037692022-10-06T15:19:42.282ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/71yTnVPadJvpmApaDwxwKFhttps://video.igem.org/lazy-static/thumbnails/ee3b9043-7da5-403f-9b83-42815e747fc0.jpgImperial_College_London: Healthy Farm Landingpage (2022)Second landing page video for Imperial College Londonhttps://static.igem.org/peertube/streaming-playlists/hls/30ab193c-033a-4a53-8fd1-102270029eb5/13e215e2-589e-433b-839c-9ce04514fd75-master.m3u8https://video.igem.org/videos/embed/71yTnVPadJvpmApaDwxwKF15037672022-10-06T15:20:59.881ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3CSJqRwkgTXRSyGgxc6hQ8https://video.igem.org/lazy-static/thumbnails/8b1a3620-39e1-4359-bcb9-1ff2c33681bc.jpgINSA_Lyon1: Simple animation of our tool FIAT LUX (2022) [English]Simple information of how our tool works! By Auriane Vicente https://aurianevicente.com/https://static.igem.org/peertube/streaming-playlists/hls/15585144-a6b5-4798-a94c-5347b70ccfbf/3602bd96-cd44-40ca-bb1a-311f8df5f129-master.m3u8https://video.igem.org/videos/embed/3CSJqRwkgTXRSyGgxc6hQ81204752022-10-06T15:49:39.604ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4MmRTxRjYnTiCXVqXiYW7Fhttps://video.igem.org/lazy-static/thumbnails/29b2f110-d910-4d9a-ae73-d3715197e088.jpgINSA_Lyon1: Integrated Human Practices (2022)Video of a tractor. By us.https://static.igem.org/peertube/streaming-playlists/hls/1ea0bdbc-5570-441c-9562-ed64ba4850cb/93a39557-e31b-4fc7-886c-eb4ee5c08a55-master.m3u8https://video.igem.org/videos/embed/4MmRTxRjYnTiCXVqXiYW7F8072022-10-06T16:00:20.568ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/izTBjHS4RnLSH8Dj79Ctxmhttps://video.igem.org/lazy-static/thumbnails/9ff79028-e0ea-4985-968c-591febb1962e.jpgBIT-China: Software Introduction (2022) [English]BIT-China: Software Introduction (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/8e66b4f1-cba4-4875-80a1-63b3bad81fc6/6f414898-3943-40ef-bd60-06197d9b5357-master.m3u8https://video.igem.org/videos/embed/izTBjHS4RnLSH8Dj79Ctxm2250232022-10-06T16:39:09.096ZSoftwareBIT-ChinaMATLABYESiGEM 2022 TeamsNOhttps://video.igem.org/w/11Smjo8Q9hqzRaUpRpZhm7https://video.igem.org/lazy-static/thumbnails/afea4aab-a52b-44f5-91bc-fe5d8792ccdb.jpgCU_Egypt: Alzheimer's awareness collaboration video (2022) [English]This video is an attempt to get global notice about Alzheimer's disease and us as a team working on it. The video is in collaboration with iGEMers from team Patras, Liu and Korhs. We thank them a lot❤️https://static.igem.org/peertube/streaming-playlists/hls/001f078b-5598-415e-a4b4-1479c45fd286/f140d226-590a-40b4-8754-d4c1ca30cebf-master.m3u8https://video.igem.org/videos/embed/11Smjo8Q9hqzRaUpRpZhm71460102022-10-06T17:25:13.281ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/u9NRDPkSi8DRJJGkPuRfwKhttps://video.igem.org/lazy-static/thumbnails/b48334f9-9f70-4c23-bf07-f797a3698404.jpgRochester: Strawberry DNA Extraction Demo (2022) [English]Mackenzie and Danielle are demonstrating how to extract DNA from strawberry using simple tools to middle school and high school kids. https://static.igem.org/peertube/streaming-playlists/hls/e3fab56e-8ece-4469-92df-943f17778b77/39436ac8-50a1-4050-afb1-73694ce019a2-master.m3u8https://video.igem.org/videos/embed/u9NRDPkSi8DRJJGkPuRfwK283082022-10-06T17:26:24.541ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hrL8Jv2hDAon3Do88KUn7Mhttps://video.igem.org/lazy-static/thumbnails/8964437a-b740-4efd-97ee-8f6968a7ee0a.jpgCU_Egypt: Orientation mini vlog (2022) [English]On this day we took the opportunity of the presence of the newcomers in the faculty of science to introduce syn-bio and iGEM to them and ignite the passion of science in them and these students now are building up an iGEM team to get into upcoming years!https://static.igem.org/peertube/streaming-playlists/hls/852b02cc-c167-44d8-bf3a-14e1a054fe6d/3a593f8b-47bf-4e99-9cf4-fa88699bfc68-master.m3u8https://video.igem.org/videos/embed/hrL8Jv2hDAon3Do88KUn7M520112022-10-06T17:34:45.478ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cWPcDbHTxB67bDdLqHJ3ishttps://video.igem.org/lazy-static/thumbnails/9c1057ac-1621-46e3-ad75-0200183c9489.jpgCU_Egypt: iGEM Cairo meetup (2022) [English]A quick highlight from iGEM Cairo meet up held in October 2021 in the presence of the African ambassadors and many people from iGEM community https://static.igem.org/peertube/streaming-playlists/hls/60bbc6fd-ce94-4192-97c6-7186dab6f15c/b25e7e35-ed8c-4afc-bb96-10f3ff004ce6-master.m3u8https://video.igem.org/videos/embed/cWPcDbHTxB67bDdLqHJ3is540102022-10-06T17:42:30.089ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fnFnx3B9Xj38wMidFq95tKhttps://video.igem.org/lazy-static/thumbnails/6cd72553-121e-4361-b09a-0bec381e6aec.jpgTecCEM: Safety Solution Wiki Background (2022)This video was created by team TecCem, it is a background for the safety part of its wiki. https://static.igem.org/peertube/streaming-playlists/hls/7466d2e6-c9d3-4a9a-9691-48668b38f379/0759daac-0f28-4707-ac25-ffa8abad0f77-master.m3u8https://video.igem.org/videos/embed/fnFnx3B9Xj38wMidFq95tK20002022-10-06T17:45:06.309ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2ptofDu5LDBWZDKy2vEEf2https://video.igem.org/lazy-static/thumbnails/da7eb6e1-b4f2-4609-978a-e9b69b811b53.jpgTecCEM: Safety Design Wiki Background (2022)This video was created by team TecCEM it is a background for the Safety Design part of our wiki. https://static.igem.org/peertube/streaming-playlists/hls/0b601f03-dc00-4747-bd89-dd96e83fa365/4b181800-7263-4ef6-982f-171bc79f0a43-master.m3u8https://video.igem.org/videos/embed/2ptofDu5LDBWZDKy2vEEf220012022-10-06T17:48:31.118ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vdYcCnDJBMMS7brzbfYQX2https://video.igem.org/lazy-static/thumbnails/8d9bf4c5-c702-48bc-84d9-4b05ca652348.jpgTecCEM: Safety Implementation Wiki Background (2022)This video was created by team TecCem for the Safety Implementation part of the wikihttps://static.igem.org/peertube/streaming-playlists/hls/eca894c6-25c3-48a9-ace3-0584f78245d7/c0e69391-948e-44b4-b557-17c5527dd5e6-master.m3u8https://video.igem.org/videos/embed/vdYcCnDJBMMS7brzbfYQX220002022-10-06T17:50:21.146ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xiissuKDqcPENxUyYhVp4Nhttps://video.igem.org/lazy-static/thumbnails/7e6154fb-a918-4583-b20a-001701668d5a.jpgTecCEM: Safety The Problem Wiki Background (2022)This video was created by team TecCem for the Safety: The problem part of our wikihttps://static.igem.org/peertube/streaming-playlists/hls/fd75b345-eb61-4bc9-9f24-82969fb67a60/074d63fe-dc1a-43cd-99f3-6863d1cefc0b-master.m3u8https://video.igem.org/videos/embed/xiissuKDqcPENxUyYhVp4N20002022-10-06T17:51:40.198ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3WazJADoMx9gCp3VGWCEw9https://video.igem.org/lazy-static/thumbnails/30be29fd-2925-4001-b6f5-918105b0b52a.jpgTecCEM: Safety Results Wiki Background (2022)This video was created by team TecCem for the Safety Results part of the wikihttps://static.igem.org/peertube/streaming-playlists/hls/17c25885-92ae-448d-895d-63f5c1cad56c/51253e74-0308-42ea-8758-f995326d1e1d-master.m3u8https://video.igem.org/videos/embed/3WazJADoMx9gCp3VGWCEw920002022-10-06T17:53:28.185ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hFgCD7TwMF9ycgXdocQCpFhttps://video.igem.org/lazy-static/thumbnails/db32465f-3fc6-4ef2-ab4a-918926cf134a.jpgCU_Egypt: South valley event (2022) [English]This event wasn't an intended one, but we always used every possible opportunity! Students from south valley university were in a visit to our faculty so we took the chance and introduced them to our department (Biotech) beside introduce them to syn-bio with a small workshop and let them know about iGEM competition and our project.https://static.igem.org/peertube/streaming-playlists/hls/870ddbe6-3c75-4328-9f85-10fffc133add/cfd78d48-afa4-49d3-91a3-528f68e71c98-master.m3u8https://video.igem.org/videos/embed/hFgCD7TwMF9ycgXdocQCpF34012022-10-06T19:30:14.185ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3dn26bGnS9KPa6NyspqqxShttps://video.igem.org/lazy-static/thumbnails/f67b7b6b-e4c4-41cb-8725-e6f64f0afc22.jpgCU_Egypt: Pharaohs are officially representing Cairo university (2022) [English]On this day we presented our first presentation of our Alzheimer's treatment idea to our faculty professors and the dean, after that they evaluated the idea and decided we will be the team representing Cairo university in iGEM and we are getting the faculty's support.https://static.igem.org/peertube/streaming-playlists/hls/11ec27e5-7454-480f-8dc5-2b228aac6308/2b5faedc-3c4d-48c7-bae2-1a1890386f6f-master.m3u8https://video.igem.org/videos/embed/3dn26bGnS9KPa6NyspqqxS490122022-10-06T19:30:26.152ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/upq5j7SFxcAyjsZh1ejQCkhttps://video.igem.org/lazy-static/thumbnails/582ecb5a-6c3b-4ed5-9217-1296818d396d.jpgTecCEM: Home Background 1 (2022)This background was created by TecCem for the home wiki section (1 out of 6)https://static.igem.org/peertube/streaming-playlists/hls/e604d356-532c-4c74-b520-bb88fc30c81b/3c73b969-d4e9-4a61-a643-1347a024b600-master.m3u8https://video.igem.org/videos/embed/upq5j7SFxcAyjsZh1ejQCk20002022-10-06T19:32:26.010ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rM3XdW1nmnLpoFZKFRwvgHhttps://video.igem.org/lazy-static/thumbnails/0e41a5a2-ba70-49c8-861a-e1affc0508b3.jpgTecCEM: Home Background 2(2022)This background was created by TecCem for the home wiki section (2 out of 6)https://static.igem.org/peertube/streaming-playlists/hls/d0bec165-b5a7-41b7-9dfd-31fea04d2f03/e9f39682-33f2-4f13-bbc8-0c9a80926181-master.m3u8https://video.igem.org/videos/embed/rM3XdW1nmnLpoFZKFRwvgH20012022-10-06T19:32:32.364ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tPcMrDpmv8L4dqLqpjmwMJhttps://video.igem.org/lazy-static/thumbnails/3cc84f37-c1e6-4aed-93a0-fb95fcc251a6.jpgTecCEM: Home Background 3 (2022)This background was created by TecCem for the home wiki section (3 out of 6)https://static.igem.org/peertube/streaming-playlists/hls/e13df67c-b89b-45ab-b650-82b54004ac34/e04cbd6f-9397-46d3-a94c-61352f329229-master.m3u8https://video.igem.org/videos/embed/tPcMrDpmv8L4dqLqpjmwMJ20012022-10-06T19:32:39.613ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hrdAsBWR9KujhVronkbR2Rhttps://video.igem.org/lazy-static/thumbnails/2df78813-db45-4a26-b4c1-f5325cf4840b.jpgTecCEM: Home Background (2022)This background was created by TecCem for the home wiki section (4 out of 6)https://static.igem.org/peertube/streaming-playlists/hls/851792ff-8fa8-4c32-b485-da95e942452f/b14c0443-3aa0-4749-bfb9-97ddac2c96d0-master.m3u8https://video.igem.org/videos/embed/hrdAsBWR9KujhVronkbR2R20012022-10-06T19:32:47.270ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sihh7RCdStBaZMMZyjT5jUhttps://video.igem.org/lazy-static/thumbnails/bf656dfb-fd94-4fc6-9651-c340f7d454c3.jpgTecCEM: Home Background 5 (2022)This background was created by TecCem for the home wiki section (5 out of 6)https://static.igem.org/peertube/streaming-playlists/hls/d4f747e6-92c8-4e17-b5e4-9d756e5e0db0/abde34cb-176c-47cc-a9e8-20bb5b6d92de-master.m3u8https://video.igem.org/videos/embed/sihh7RCdStBaZMMZyjT5jU20012022-10-06T19:32:54.473ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/g8hTG4LxdrZAwXKsZSUQb2https://video.igem.org/lazy-static/thumbnails/4166accb-ff48-466f-b5c6-808b6ac8cb29.jpgTecCEM: Home Background 6 (2022)This background was created by TecCem for the home wiki section (6 out of 6)https://static.igem.org/peertube/streaming-playlists/hls/7a7db224-cf7b-4930-9a6c-fd7b441fefe5/891eca5a-179f-4169-a685-85172afb0bc8-master.m3u8https://video.igem.org/videos/embed/g8hTG4LxdrZAwXKsZSUQb220002022-10-06T19:33:01.655ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/c3khLbGqfabjG9RuwMBkydhttps://video.igem.org/lazy-static/thumbnails/52196263-0370-4b86-a260-1794da3f2f69.jpgNYCU_Formosa: Project Logo (2022) [English]the project logo animation of our project https://2022.igem.wiki/nycu-formosahttps://static.igem.org/peertube/streaming-playlists/hls/5967e66a-bff7-4fc4-996f-3fc2d8883a80/4023370e-ab55-4804-a79d-ea17eac97ff0-master.m3u8https://video.igem.org/videos/embed/c3khLbGqfabjG9RuwMBkyd8082022-10-06T19:26:47.826ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/noDwWJefyWh44ukmMTuYGXhttps://video.igem.org/lazy-static/thumbnails/a99f2d10-14b0-4401-a7ee-c49f17ea9d9a.jpgTecCEM: Safety Clip (2022) [English]Team TecCem Safety clip.https://static.igem.org/peertube/streaming-playlists/hls/ad3967d8-7f63-4acb-9099-5f3b54cca757/a98c50f7-c985-4f70-b76c-ac80511ab0d5-master.m3u8https://video.igem.org/videos/embed/noDwWJefyWh44ukmMTuYGX1060602022-10-06T19:33:49.996ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wNMhR9pA2c8gXQa6Uhq9fohttps://video.igem.org/lazy-static/thumbnails/4073d21a-87b7-4265-b1de-08f772108992.jpgCU_Egypt: Future school event (2022) [English]This event was held in future school-nasser city for the prep students. The aim was basically to introduce syn-bio and iGEM competition to them and to let them know about the high school track in iGEM , and of course we take an opportunity to spread awareness about Alzheimer's among such a young age and let them think about it as a serious problem.https://static.igem.org/peertube/streaming-playlists/hls/f97a48d2-a5a1-40d7-8fd9-3674a84abd62/739ab9f7-4367-423a-995a-231732d8d14f-master.m3u8https://video.igem.org/videos/embed/wNMhR9pA2c8gXQa6Uhq9fo25062022-10-06T19:43:57.366ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/phyAy9Maj1nbTtxdXr6P8bhttps://video.igem.org/lazy-static/thumbnails/c98d6438-a707-491a-b66a-5ecf94e19919.jpgUBC_Vancouver: PyMOL visualization of ACCD enzyme and substrates (2022)PyMOL visualization of ACCD enzyme and substrateshttps://static.igem.org/peertube/streaming-playlists/hls/bc922d67-0647-4f77-be1f-cf827ed52374/56aea72d-18f4-4c8c-9e93-92c6c6bf7b17-master.m3u8https://video.igem.org/videos/embed/phyAy9Maj1nbTtxdXr6P8b602782022-10-06T21:11:16.695ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/k19yFrDbPRzbg5iKVfb5pmhttps://video.igem.org/lazy-static/thumbnails/5df3278b-18a2-46a7-8abf-421d1be68f55.jpgUBC_Vancouver: PyMOL visualization of the CMO enzyme (2022)UBC_Vancouver: PyMOL visualization of the CMO enzyme (2022)https://static.igem.org/peertube/streaming-playlists/hls/99e2e975-bb39-4e91-8828-044e2137f9aa/89c1acc6-50ce-4efa-8abc-8f95b67c24a3-master.m3u8https://video.igem.org/videos/embed/k19yFrDbPRzbg5iKVfb5pm401082022-10-06T21:45:32.680ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cF9zoGPVQHk4ZcASXgffg8https://video.igem.org/lazy-static/thumbnails/3711a0ff-a6ab-4cc7-a786-7928fff838d5.jpgUBC_Vancouver: PyMOL visualization of TaHsfA2b (2022)UBC_Vancouver: PyMOL visualization of TaHsfA2b (2022)https://static.igem.org/peertube/streaming-playlists/hls/5e8bd138-114a-4dff-b4ef-5f6f29ea7965/280e98aa-2970-403a-a9b3-e74db4e880fe-master.m3u8https://video.igem.org/videos/embed/cF9zoGPVQHk4ZcASXgffg83022022-10-06T21:47:08.380ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fxFZn5Z7GRYAk5kYAnMnWvhttps://video.igem.org/lazy-static/thumbnails/b8086d13-f060-4ee6-b4fa-33374160392f.jpgUBC_Vancouver: PyMOL visualization of the SBPase enzyme (2022)UBC_Vancouver: PyMOL visualization of the SBPase enzyme (2022)https://static.igem.org/peertube/streaming-playlists/hls/75cca468-bd35-4408-aac5-7292ec989a65/e8ee3659-470c-4ca3-9be7-5a1282f1889a-master.m3u8https://video.igem.org/videos/embed/fxFZn5Z7GRYAk5kYAnMnWv802882022-10-06T21:48:25.041ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5tqH7DKtNb7BmV9HHyd9GGhttps://video.igem.org/lazy-static/thumbnails/d4257172-02ad-47db-a387-f25abed65f77.jpgIISER-Tirupati_India: Podcast on Ethics in Syn-Biology (2022) [English]IISER Tirupati, in collaboration with VIT Vellore, presents a podcast on " Ethics in Syn-biology". This podcast aims to help iGEM teams and people understand the importance of ethics in syn-bio, the way it should be planned and the framework.https://static.igem.org/peertube/streaming-playlists/hls/2438dd22-f015-453d-be4f-54e9ac4cb218/a6342f47-28d9-4631-b6d9-debda804298a-master.m3u8https://video.igem.org/videos/embed/5tqH7DKtNb7BmV9HHyd9GG3783032022-10-07T00:09:43.895ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4b1q6fehKCYetioV8SMd31https://video.igem.org/lazy-static/thumbnails/f38c2c2d-bacb-46a9-a888-dba9f0e9a0f3.jpgIISER-Tirupati_India: Unboxing distribution kit (2022) [English]It's here; it's finally here!!!. And you see a bunch of happy faces when the distribution kit arrives. Check out how this year's iGEM IISER Tirupati's team unravelled the kit's contents. Do not miss the BTS moments in the end. Happy watching !! https://static.igem.org/peertube/streaming-playlists/hls/19b11c12-04e8-410c-b59b-3bd4b3e9b0ec/2abc153c-0e5c-4c80-85f5-b42db1c643c0-master.m3u8https://video.igem.org/videos/embed/4b1q6fehKCYetioV8SMd31157002022-10-07T00:15:21.894ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/toPdQ8VBujn4RS8ccjdo5nhttps://video.igem.org/lazy-static/thumbnails/6c139b86-b375-4d73-9c68-cd1196fcc562.jpgSCU-China: bg (2022) [English]SCU-China: bg (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/ddd63536-6e9f-4dc1-a6a9-c9d071938335/920a5a05-ff2f-433b-b25d-4efafa686e76-master.m3u8https://video.igem.org/videos/embed/toPdQ8VBujn4RS8ccjdo5n100232022-10-07T02:33:05.963ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/q89wrQQjcGNNjRBbRKvAu4https://video.igem.org/lazy-static/thumbnails/d9357d8b-6e7c-451c-aae1-de346aa9ea22.jpgSCU-China: Sugar Painting (2022) [English]SCU-China: Sugar Painting (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/c35ac9b3-d6ed-427e-bb21-0a2869702bfb/5ef509ae-597b-4af5-8c13-20c23616ee03-master.m3u8https://video.igem.org/videos/embed/q89wrQQjcGNNjRBbRKvAu468062022-10-07T03:22:56.593ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/28XJ3EKqaWFf2e9vYHQyHnhttps://video.igem.org/lazy-static/thumbnails/7dd52163-5562-4793-a266-43067fd57bfe.jpgSCU-China: ICII (2022) [English]SCU-China: ICII (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/0935afcf-6f02-4edc-bc75-d16a6f13e82f/56acf349-1f81-45f7-98e7-18a2275a4963-master.m3u8https://video.igem.org/videos/embed/28XJ3EKqaWFf2e9vYHQyHn66082022-10-07T03:27:38.741ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/g78yjaunED9msB1PQuWfW3https://video.igem.org/lazy-static/thumbnails/bb90f35a-65eb-4fe0-a057-cb142cabbd48.jpgTHINKER_CHINA: E.Coli Knowledge Sharing Activity (2022) [Chinese]Escherichia coli plays an important role in modern bioengineering and industrial microbiology due to its long history of laboratory usage and its malleability. Stanley Norman Cohen and Herbert Boyer's work on E. coli used plasmids and restriction enzymes to create recombinant DNA, which became the foundation of biotechnology. Escherichia coli is crucial in biological laboratories and pursuing sustainable development, where Escherichia coli serves as a "production factory" of bioenergy. At the same time, artificial insulin, vaccines, etc., are inseparable from Escherichia coli. Therefore it is no exaggeration that Escherichia coli can be called an indispensable bacteria for the development of biotechnology and synthetic biology. However, through our investigations, we found that even with all the benefits Escherichia coli can bring, it is often unheard of to both biology-focused students and students who are focused on other fields. And even students who have heard of it all have a stereotype against Escherichia coli due to its partial futures that might cause diseases. Therefore, we decided to hold a biological sharing session on Escherichia coli.https://static.igem.org/peertube/streaming-playlists/hls/7a543323-a5ea-4eb4-b793-a269f8fb5126/01a26895-6081-4d54-8888-0ac894a416d7-master.m3u8https://video.igem.org/videos/embed/g78yjaunED9msB1PQuWfW31910072022-10-07T04:48:33.668ZEducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pexu924ZM9QvqNCoj5WyNEhttps://video.igem.org/lazy-static/thumbnails/8eaaceac-1284-4ee1-ab2d-f0012175df15.jpgTHINKER_CHINA: EDG Education (2022) [Chinese]Fossil fuels such as coal, oil, or natural gas have been the primary source of electricity production for decades, but the combustion of carbon fuels produces large amounts of greenhouse gases, causing climate change and detrimental effects on people's well-being and the environment. In addition, global electricity consumption is proliferating. And now, synthetic biology is also entering the field of bioenergy development. To give students a deeper understanding of the current synthetic biology and sustainable development goals, we have carried out SDG & synthetic biology science lectures.https://static.igem.org/peertube/streaming-playlists/hls/bc2642f8-1723-478d-9486-c0dfc5020282/60c97d7a-5eef-4f34-a7c7-933934c6ca89-master.m3u8https://video.igem.org/videos/embed/pexu924ZM9QvqNCoj5WyNE1155022022-10-07T05:13:49.546ZEducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pT9RWKeMrM1aV9CaD7vDEEhttps://video.igem.org/lazy-static/thumbnails/f704778e-de68-444d-9344-4f94cb6a579e.jpgNCKU_Tainan: MerStage (2022) [English]Aside from space radiation, microgravity is an unignorable property of space. It surely must be taken into consideration since it greatly affects the function of Se coli in space. However, available devices are lacking ideal simulation of microgravity. Even clinostats, the most commonly used machine for microgravity simulations, can only approximate microgravity in a tiny space near their centers by static equilibrium. Knowing that true microgravity is not yet achievable, we chose two of the most significant phenotypes that microbes might encounter in space and simulated them using hanging drop microfluidic chips. After simulating the two phenotypes with pendant microfluidic chips, we crafted an acrylic case with UV lamps inside and placed the chips containing bacteria samples in it. By using this device, Se coli’s UV tolerance can be tested. We build our own hardware “MerStage”, a combination of microfluidic chip and UV-C stage to simulate microgravity and space radiation simultaneously. Operating MerStage requires no special training and costs only 5.0 USD for a single test. With this convenience revealed, MerStage is more accessible to the public and brings the real space environment closer.https://static.igem.org/peertube/streaming-playlists/hls/c1669511-7431-4e57-b0a8-cc0942cca43e/700d7d82-e8c6-414e-a68e-e5f576d9c82f-master.m3u8https://video.igem.org/videos/embed/pT9RWKeMrM1aV9CaD7vDEE1130172022-10-07T13:00:55.187ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8sedqUv96ZmrBkGfVMqJndhttps://video.igem.org/lazy-static/thumbnails/c032375d-6bac-4c38-b93b-e16c0f7d55fe.jpgThessaly: Dictionary Demo (2022)A brief demo of our multilingual synthetic biology dictionary website.https://static.igem.org/peertube/streaming-playlists/hls/3c5973c6-1bc2-4c02-9962-07905b7cd6e6/f065d3a2-e9ed-4e75-a2b9-dfab9c210d08-master.m3u8https://video.igem.org/videos/embed/8sedqUv96ZmrBkGfVMqJnd870112022-10-07T13:51:27.963ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6zYrDvAfnTZSPrfyJ6npUDhttps://video.igem.org/lazy-static/thumbnails/9edbe65a-ac42-4a7e-975b-6e03e6353d7c.jpgUBC_Vancouver: Synaestivum Intro (2022) [English]Introduction title card for our project!https://static.igem.org/peertube/streaming-playlists/hls/2d3c057d-3e33-44a1-b4f7-b8a523e3e701/169747d4-094b-453b-9a3f-ada5e7b6af2a-master.m3u8https://video.igem.org/videos/embed/6zYrDvAfnTZSPrfyJ6npUD9011322022-10-07T13:52:14.081ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vgcp6K3WwWoB2N5iJZ1wpwhttps://video.igem.org/lazy-static/thumbnails/ea939065-225b-4b7a-8525-f5907991644b.jpgThessaly: Interview to Hellenic Broadcasting Corporation (2022) [Greek]Our team had the chance to communicate this year's project. This happened through an interview to the Hellenic Broadcasting Corporation in the source of our project brainstorming problem, Eutrophication in Lake Karla.https://static.igem.org/peertube/streaming-playlists/hls/ecf833bd-e2f3-486d-8b7e-ae63583dfc9c/fe051a52-7ccb-4da0-b778-326bb863d3bd-master.m3u8https://video.igem.org/videos/embed/vgcp6K3WwWoB2N5iJZ1wpw150112022-10-07T14:03:08.912ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6T3puxRFVgx1vviVA5y9Sqhttps://video.igem.org/lazy-static/thumbnails/dcdfacb9-45e7-438e-ac1b-a13e6090e141.jpgCU_Egypt: minigem workshop days (2022) [English]This is a mini vlog of three days 3 days workshops that were held by cu Egypt before miniGEM competition... we made sure that all the audience reach the idea of iGEM and syn-bio, and there were talks about basic techniques of syn-bio and modelling so they can use these tools to construct their syn-bio project.https://static.igem.org/peertube/streaming-playlists/hls/2f9e1b94-07fb-4509-b3c9-a5f54b7201cc/057ea933-8e90-4ef8-b6b3-a1929b6bf0c2-master.m3u8https://video.igem.org/videos/embed/6T3puxRFVgx1vviVA5y9Sq1360112022-10-07T14:15:09.936ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/k4sR3E2HYKL66zEStxoS25https://video.igem.org/lazy-static/thumbnails/6f6476b6-9f3f-4c45-99ca-430e7dc82f0a.jpgUCopenhagen: DryLab Silk Modelling Guide (2022) [English]A comprehensive guide how to model silk protein networkshttps://static.igem.org/peertube/streaming-playlists/hls/9a5968f8-fa92-41ad-a59a-913702fa1c06/afba9222-39d1-4bc6-b6f4-8c915a389804-master.m3u8https://video.igem.org/videos/embed/k4sR3E2HYKL66zEStxoS2524360322022-10-07T15:04:40.771ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iHwsXNsK3ZHYPPNNEHTrFthttps://video.igem.org/lazy-static/thumbnails/06f418c7-cd5f-45fc-83c1-0ac919464c6f.jpgCSU_CHINA: Into China, Into iGEM (2022) [English]This year, we are honored to be invited by NAU_CHINA to be a part of ICII community to communicate with 11 teams in China to share our opinion. We used live stream as the form of our lecture, making it not only for us iGEMers but also for everyone who is interested in synthetic biology or biology on bilibili. We attended every lecture given by other teams, learned from them and gave our own opinion on their project.https://static.igem.org/peertube/streaming-playlists/hls/8f77a05d-a7a6-4d8c-ac6e-17139537243d/3384f860-4b13-4af8-83fe-235667c78f7b-master.m3u8https://video.igem.org/videos/embed/iHwsXNsK3ZHYPPNNEHTrFt3920182022-10-07T16:11:38.090ZICIICSU_CHINASICENCEYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pJAGLajexazgihhuTpihqWhttps://video.igem.org/lazy-static/thumbnails/59a4b108-f154-4233-8910-6500b9c84e60.jpgIISER_Bhopal: Stubble Burning (2022)This video depicts stubble burning.https://static.igem.org/peertube/streaming-playlists/hls/c034d059-be5e-47ef-80bf-7262582fa4de/c3f1e04f-0ec1-42ff-8b6a-7ed11b24a647-master.m3u8https://video.igem.org/videos/embed/pJAGLajexazgihhuTpihqW5092022-10-07T18:27:56.607ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/r1A3c6VvGnMcTjXUxY3qp9https://video.igem.org/lazy-static/thumbnails/956ae6ad-bdf8-4cc8-a207-3c82c3b947d9.jpgIISER_Bhopal: Stubble Burning near campus (2022)This video depicts stubble burning near campus.https://static.igem.org/peertube/streaming-playlists/hls/ca89716a-566c-41bb-9fbc-f0370994b94e/21277435-421f-4bae-a9a3-9f555b06d7fb-master.m3u8https://video.igem.org/videos/embed/r1A3c6VvGnMcTjXUxY3qp9501252022-10-07T18:27:59.540ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hxywqkoAHegJnSvoK9MwFzhttps://video.igem.org/lazy-static/thumbnails/e1e032eb-2230-46f7-986a-481a38eacbdf.jpgIISER_Bhopal: Air pollution (2022)Air pollution due to stubble burning.https://static.igem.org/peertube/streaming-playlists/hls/85fa51c0-e860-4b2f-915a-277413c43497/cc5ad76e-099c-4066-bd74-a22e52d3a326-master.m3u8https://video.igem.org/videos/embed/hxywqkoAHegJnSvoK9MwFz50162022-10-07T18:28:02.520ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fYaPJUAMvopr876FndULnnhttps://video.igem.org/lazy-static/thumbnails/c4d7f54a-b499-464f-8356-93ea3032f584.jpgIISER_Bhopal: Health issues (2022)Health issues due to stubble burning.https://static.igem.org/peertube/streaming-playlists/hls/7937a564-30a9-46b7-954c-e2c0f3833a47/e081e1d3-0a23-4237-803a-49649012583a-master.m3u8https://video.igem.org/videos/embed/fYaPJUAMvopr876FndULnn50112022-10-07T18:28:06.973ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/c4aeFN5JRW9Y6rzDyL7252https://video.igem.org/lazy-static/thumbnails/53f04763-1bab-4462-9386-ae22f89e8602.jpgIISER_Bhopal: Soil fertility decline (2022)The decline in soil fertility.https://static.igem.org/peertube/streaming-playlists/hls/598572cc-c569-4a84-a8ab-8a7929629a7d/5ac1bb87-9091-43d4-bf8f-6cb18c3b848e-master.m3u8https://video.igem.org/videos/embed/c4aeFN5JRW9Y6rzDyL725250102022-10-07T18:28:12.885ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bQi3ZeFBz1Ch6horLmeP3whttps://video.igem.org/lazy-static/thumbnails/64a48c98-3170-4171-bdc3-6afd22f1cfe6.jpgIISER_Bhopal: Biodiversity loss (2022)Biodiversity losshttps://static.igem.org/peertube/streaming-playlists/hls/57b9988e-19b1-4d39-83e4-355801b97036/66c122a4-45b6-4335-baa6-ba20e9d2750b-master.m3u8https://video.igem.org/videos/embed/bQi3ZeFBz1Ch6horLmeP3w5072022-10-07T18:28:19.447ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/d78pJi3uBT1VDNZbJpSbrPhttps://video.igem.org/lazy-static/thumbnails/35566136-aa61-4d33-839b-5b291fc92268.jpgIISER_Bhopal: Burning1 (2022)Another video of stubble burning.https://static.igem.org/peertube/streaming-playlists/hls/6208b14c-96ab-4d82-b7ec-79a15fd0c6c1/e0c3af48-dbf8-44b6-9962-a6418b7f943d-master.m3u8https://video.igem.org/videos/embed/d78pJi3uBT1VDNZbJpSbrP50172022-10-07T18:32:38.719ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dMridj5SdEdPik1x1Qq1TPhttps://video.igem.org/lazy-static/thumbnails/217f1b00-ec82-4238-b642-946a3c53361f.jpgICT-Mumbai: Tamil School Visit (2022) [English]Taking our outreach program a step further, the team went to Matunga Kings Circle BMC School to interact with students of classes 9 and 10. The students were addressed in 3 languages according to their backgrounds, Tamil, Hindi and English. We carried out this session with an aim of creating interest among underprivileged children about the world of synthetic biology through easily relatable examples. We taught them about the DNA and the implications it can have on vaccine technology, plant life, microbiology and many more allied areas. The students were very interested and they posed a lot of questions on the lines of further possibilities and current technologies available. They were intrigued and asked the team how they could pursue these fields after which the team gave them practical advice regarding courses and career paths. The principal of the school commended the team for their efforts and invited them to continue staying in touch and aiding students.https://static.igem.org/peertube/streaming-playlists/hls/6785b927-2f61-40f2-a21e-be992ac9fd3d/ee7dd3f5-ac05-4335-9d63-4057c590603a-master.m3u8https://video.igem.org/videos/embed/dMridj5SdEdPik1x1Qq1TP4101322022-10-07T21:06:49.289ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8J7ucqu7w81yMSr22Er8Ephttps://video.igem.org/lazy-static/thumbnails/aa21879e-a83c-433f-99ba-5a3b3ec7aa26.jpgThessaly: R.A.S.A RC - Boat (2022) [English]This is a video of our RC-Boat on a lake being tested in real-life scenarios. https://static.igem.org/peertube/streaming-playlists/hls/3e9134c9-2754-44b6-9593-0d1854139957/c72c57ee-eb91-4926-a317-31ff0ccab7ca-master.m3u8https://video.igem.org/videos/embed/8J7ucqu7w81yMSr22Er8Ep62022022-10-07T20:47:03.600ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fehAgH6zjpQ5Vq8ygAmx3zhttps://video.igem.org/lazy-static/thumbnails/e10d4fb1-a29a-4043-9cde-a72aefc6096d.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 3 - What is an antibody? (2022) [English]Welcome to this new episode of the web series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this episode, we introduce Thomas and will tell you all about the symptoms of allergies. Stay tuned for the next episode! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Thomas Crestey 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.music https://static.igem.org/peertube/streaming-playlists/hls/733ad5b1-9245-46e1-8359-59a5859d8f11/aaeaca55-97ca-4760-801d-0797b41c9e4f-master.m3u8https://video.igem.org/videos/embed/fehAgH6zjpQ5Vq8ygAmx3z178092022-10-07T21:48:40.149ZwebseriesAllergytoulouseYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pWEU5vZCmQuPCXFp3WYpaPhttps://video.igem.org/lazy-static/thumbnails/88b379b8-f55d-41fd-a1c4-b4c633823192.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 1 - What are the symptoms of an allergic reaction...Welcome to the first episode of the web-series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this first episode, Juliette will tell you all about the symptoms of allergies. Stay tuned for the next episode! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Juliette Royer 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.musichttps://static.igem.org/peertube/streaming-playlists/hls/c1e4530e-6e90-45a6-bbda-dee5fa037a15/b5c1a13c-dc81-44fd-8256-2759ce481694-master.m3u8https://video.igem.org/videos/embed/pWEU5vZCmQuPCXFp3WYpaP2080162022-10-07T22:06:52.622ZwebseriestoulouseAllergyYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2sexjjPCG4YJXss1Tgs2Hwhttps://video.igem.org/lazy-static/thumbnails/6cf7ce2a-163d-4087-8c3e-1e4d595dd2bd.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 2 - What is an allergen? (2022) (English)Welcome to the second episode of the web-series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this episode, Juliette explain what an allergen is. Stay tuned for the next episode! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Juliette Royer 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.musichttps://static.igem.org/peertube/streaming-playlists/hls/0bc2d22a-5317-4972-8366-94ae087b8a6c/ce103fb3-2f29-4540-923f-9596fbb19560-master.m3u8https://video.igem.org/videos/embed/2sexjjPCG4YJXss1Tgs2Hw165052022-10-07T22:12:22.549ZAllergywebseriestoulouseYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jcY26Q1wWxBEFYsjn3cFsVhttps://video.igem.org/lazy-static/thumbnails/a3847727-05ea-4fd6-baf5-1daca1adec58.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 5 - What are the causes of allergies? (2022) (Eng...Welcome to this new episode of the web-series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this episode, meet Laure. She will explain the causes of allergic reactions. Stay tuned for the next episode! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Laure Lamothe 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.musichttps://static.igem.org/peertube/streaming-playlists/hls/93703344-d46a-49f8-8063-00454ebe560d/6545edc3-784d-4d44-bef1-2a66fb21e300-master.m3u8https://video.igem.org/videos/embed/jcY26Q1wWxBEFYsjn3cFsV161042022-10-07T22:19:41.578ZtoulouseAllergywebseriesYESiGEM 2022 TeamsNOhttps://video.igem.org/w/gxoBs8krU7afXoo7QrihNWhttps://video.igem.org/lazy-static/thumbnails/fa2cc410-90f3-4c10-80a9-98b1ddbd81f5.jpgTecCEM: home_2_Trim (2022)Background for TecCEM Home page. Created by Itcel Ortega, Sofia Azamar, Minerva Zamudio, Selma Martinez and Valeria Gómez.https://static.igem.org/peertube/streaming-playlists/hls/7ddb1248-fa16-416c-8ebe-a751490b069a/5eb1d4ed-ce67-4841-a014-a289f51f5d75-master.m3u8https://video.igem.org/videos/embed/gxoBs8krU7afXoo7QrihNW4022022-10-07T23:39:36.147ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cmkCHH7eKQ4SHFSfzPjJbGhttps://video.igem.org/lazy-static/thumbnails/be4abf74-ae99-46cd-b590-39d56e6bab62.jpgTecCEM: Home_1_Trim (2022)Background for TecCEM Home page. Created by Itcel Ortega, Sofia Azamar, Minerva Zamudio, Selma Martinez, Zyanya Rojas Valeria Gómez, Daniela Mejía, Andreas Z. Hernández and Sara Sofía Hernándezhttps://static.igem.org/peertube/streaming-playlists/hls/5beb7ffe-b6ef-49f6-b78f-df6d80fa8634/3e2fd762-6a90-4d68-ba8f-4ab12d22eb3d-master.m3u8https://video.igem.org/videos/embed/cmkCHH7eKQ4SHFSfzPjJbG7042022-10-07T23:55:01.269ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3sUFiiSKGdvNYdFseQPvpKhttps://video.igem.org/lazy-static/thumbnails/e7259d4c-63d0-4508-b122-d94ada688fe7.jpgTecCEM: Home_3 (2022)Background for TecCEM Home page. Created by Itcel Ortega, Sofia Azamar, Minerva Zamudio, Selma Martinez and Valeria Gómez,Zyanya Rojas, Daniela Mejía, Andreas Z. Hernández, Sara Sofía Hernández, Roberto Alcántara and Elena Tovar.https://static.igem.org/peertube/streaming-playlists/hls/13f4143b-e840-493c-b055-42f69ce533ed/c99ad8de-3985-456a-b2e7-0f2a4587cc9c-master.m3u8https://video.igem.org/videos/embed/3sUFiiSKGdvNYdFseQPvpK13012022-10-08T00:00:40.781ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7hRFBEYaP6YWcRxr5huv3Phttps://video.igem.org/lazy-static/thumbnails/ecf86b5b-0ecb-43c1-af64-8dea76b8b56a.jpgTecCEM: Home_4_Trim (2022)Background for TecCEM Home page. Created by Itcel Ortega, Sofia Azamar, Minerva Zamudio, Selma Martinez and Valeria Gómez,Zyanya Rojas, Daniela Mejía, Andreas Z. Hernández, Sara Sofía Hernández, Roberto Alcántara and Elena Tovarhttps://static.igem.org/peertube/streaming-playlists/hls/32f159bc-2c31-4280-9770-d52c321e3a57/9f22a426-fa51-4933-bb3f-051bc04ffb98-master.m3u8https://video.igem.org/videos/embed/7hRFBEYaP6YWcRxr5huv3P6022022-10-08T00:01:42.497ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9XGDFYbNPq4nDRSqW5XbY7https://video.igem.org/lazy-static/thumbnails/873c264e-0028-44b5-861d-81caf9a60686.jpgTecCEM: Home_5_Trim (2022)Background for TecCEM Home page. Created by Itcel Ortega, Sofia Azamar, Minerva Zamudio, Selma Martinez and Valeria Gómez,Zyanya Rojas, Daniela Mejía, Andreas Z. Hernández, Sara Sofía Hernández, Roberto Alcántara and Elena Tovarhttps://static.igem.org/peertube/streaming-playlists/hls/48901166-468e-4426-b415-de6cbf6df4b6/61ac9532-2f9c-4ee7-b011-c70a1646472a-master.m3u8https://video.igem.org/videos/embed/9XGDFYbNPq4nDRSqW5XbY75022022-10-08T00:03:15.856ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3SrQr9Yaef7MV9SXMRiRk7https://video.igem.org/lazy-static/thumbnails/d02a1d9b-cabd-4393-974b-5c00480bf8ee.jpgTecCEM: home_6_Trim (2022)Background for TecCEM Home page. Created by Itcel Ortega, Sofia Azamar, Minerva Zamudio, Selma Martinez and Valeria Gómez,Zyanya Rojas, Daniela Mejía, Andreas Z. Hernández, Sara Sofía Hernández, Roberto Alcántara and Elena Tovarhttps://static.igem.org/peertube/streaming-playlists/hls/173d6322-67c9-4fce-bdd3-8a1ff34184d0/64817527-85ff-4ccd-9773-314d483af951-master.m3u8https://video.igem.org/videos/embed/3SrQr9Yaef7MV9SXMRiRk73052022-10-08T00:04:13.621ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9JuSN44BNbWZybrCpNvwHLhttps://video.igem.org/lazy-static/thumbnails/cde83b2e-f478-44f4-9e6e-6aa14dc2361e.jpgNJMU-China: game demonstration (2022) [English]This video serves as the instruction for our game.https://static.igem.org/peertube/streaming-playlists/hls/46b82497-9f76-419e-9a29-0a918194f9f6/22c95224-462c-4bab-93a6-2226447ffbfd-master.m3u8https://video.igem.org/videos/embed/9JuSN44BNbWZybrCpNvwHL310122022-10-08T01:51:50.801ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fwFfiZbrpkvPonRYJ6AQwjhttps://video.igem.org/lazy-static/thumbnails/2e136e47-a074-4d29-adfa-140a6bede48f.jpgThessaly: Mycelium CFW Prototype (2022) [English]Our first Constructed Floating Wetland (CFW) Prototype made by Mycelium biomaterial.https://static.igem.org/peertube/streaming-playlists/hls/75a870e4-fc2e-47bc-9c22-6a77cdab09fe/da0ca812-69a4-49c7-a643-c43c27163310-master.m3u8https://video.igem.org/videos/embed/fwFfiZbrpkvPonRYJ6AQwj870482022-10-08T03:15:59.212ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/peMLecTUAcvubjojL1thsfhttps://video.igem.org/lazy-static/thumbnails/db699a1a-9903-43ce-87bb-b2be1ce54d29.jpgShanghai_city: Education (2022) [English]We edited a video about our mini-lecture recording and posted it on Little Red Book in order to ppread the impact that we hope more people can gain these knowledge through our video. https://2022.igem.wiki/shanghai-city/educationhttps://static.igem.org/peertube/streaming-playlists/hls/bc2f0f73-ce9f-4988-9d2f-01f3b04fc76a/31830f3b-7837-4f1e-9f85-3ef46e35a898-master.m3u8https://video.igem.org/videos/embed/peMLecTUAcvubjojL1thsf227092022-10-08T03:50:37.293ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jTxoaVvzD2VkTreMAdDuRShttps://video.igem.org/lazy-static/thumbnails/99e3beb7-8cc2-4a6f-9fd1-38dd6f81ca68.jpgShanghai_city: Education (2022) [Chinese]Shanghai city Team Song https://2022.igem.wiki/shanghai-city/educationhttps://static.igem.org/peertube/streaming-playlists/hls/98f6c4a5-c8e6-4695-938b-fdea20cdabc4/c0c8738c-6b92-4c65-9b77-d15e618830a2-master.m3u8https://video.igem.org/videos/embed/jTxoaVvzD2VkTreMAdDuRS880142022-10-08T03:59:12.727ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1GZnxja7gTkWKG3Hm46LHXhttps://video.igem.org/lazy-static/thumbnails/687214ba-a5d8-442d-8d27-8a4a992aaec4.jpgSubCat_China: software (2022) [English]Instructional Video https://2022.igem.wiki/subcat-china/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/05b91b6f-538a-4fa8-b7c3-af7a49d7a169/e94f9033-e1b0-4fa7-8fd6-7792ea6deac0-master.m3u8https://video.igem.org/videos/embed/1GZnxja7gTkWKG3Hm46LHX93082022-10-08T04:12:09.640ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iWZsYWmK5TSWyFSBEWJHxrhttps://video.igem.org/lazy-static/thumbnails/926c621d-1c66-40fd-91e5-b9bd7f121c22.jpgUZurich: Interview with Marcel Brunner (2022) [German]UZurich: Interview with Marcel Brunner (2022) [German]https://static.igem.org/peertube/streaming-playlists/hls/9158ef5b-6662-4287-a437-00aadd79ca53/022b42f4-7a70-4252-b0da-e4aa763fe66b-master.m3u8https://video.igem.org/videos/embed/iWZsYWmK5TSWyFSBEWJHxr980022022-10-08T06:30:24.008ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/13qqQBAyau6Mbjc9VdVPJDhttps://video.igem.org/lazy-static/thumbnails/24bd9396-6fd8-4366-a038-a5f19d19e8bb.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 4 - How does an allergic reaction work? (2022) (E...Welcome to this new episode of the web series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this episode, Thomas will explain how an allergic reaction works. Stay tuned for the next episode! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Thomas Crestey 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.music https://static.igem.org/peertube/streaming-playlists/hls/00568abf-3aa6-44b3-a22e-99a516ef0bed/6dc57475-ba3b-4497-8bdf-277fe442abb3-master.m3u8https://video.igem.org/videos/embed/13qqQBAyau6Mbjc9VdVPJD146052022-10-08T07:48:31.800ZtoulousewebseriesAllergyYESiGEM 2022 TeamsNOhttps://video.igem.org/w/547g4gSxSq7UFwujggiYCyhttps://video.igem.org/lazy-static/thumbnails/418d9783-32b4-4653-89af-84dc677acd94.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 6 - How to prevent allergic reactions? (2022) (En...Welcome to this new episode of the web series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this episode, meet Laure. She is sharing tips and advice on how to prevent allergic reactions. Stay tuned for the next episode! Download Allergobox : GooglePlay https://play.google.com/store/apps/details?id=fr.allergobox App Store https://apps.apple.com/fr/app/allergobox/id1189519427?l=fr&ls=1 Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Laure Lamothe 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.music https://static.igem.org/peertube/streaming-playlists/hls/20d3a4c0-75f4-4f2d-813f-a13788c557a0/2e3151d1-73e1-42ce-8c1e-52665a296829-master.m3u8https://video.igem.org/videos/embed/547g4gSxSq7UFwujggiYCy221052022-10-08T07:58:08.766ZwebseriesAllergytoulouseYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1JMtNtLNL3C4ygyDFX5aSqhttps://video.igem.org/lazy-static/thumbnails/f4e17bfa-34c8-40c6-b26d-02fa5a18d49e.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 7 - How to treat allergic reactions? (2022) (Engl...Welcome to this new episode of the web-series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this episode, meet Charline. She will detail the different ways to treat allergies. Stay tuned for the next episode! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Charline Baraban 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.musichttps://static.igem.org/peertube/streaming-playlists/hls/05f94416-f4a2-439d-ac39-b3e016a8f660/7b6b1d62-1ba6-489f-aee2-6029b3273c8f-master.m3u8https://video.igem.org/videos/embed/1JMtNtLNL3C4ygyDFX5aSq186022022-10-08T08:05:09.140ZAllergytoulousewebseriesYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nWTzTR3ErLaG4HZfMfLJzXhttps://video.igem.org/lazy-static/thumbnails/ee80efec-e7f7-46cb-84ef-eee67493ed24.jpgNCKU_Tainan: MerSe Podcast (2022) [English]NCKU_Tainan had collaborated with KU_Leuven in making a podcast about how scientists overcame their troubles. We invited Professor Yi Yang, a professor in the Department of Physics at NCKU and a physicist studying the properties of particles.https://static.igem.org/peertube/streaming-playlists/hls/b1b9dd8d-9918-4d30-81f4-16af311f3f79/bb603ffb-84b0-4b76-a873-69ffe965ff2f-master.m3u8https://video.igem.org/videos/embed/nWTzTR3ErLaG4HZfMfLJzX228022022-10-08T08:34:01.103ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7gMqo9vx8DDxAqFyno9ehphttps://video.igem.org/lazy-static/thumbnails/f51c1e74-0da9-41ee-82e6-15fb7047bdc0.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 8 - How to use an epinephrine pen? (2022) (English)Welcome to this new episode of the web series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this episode, meet Charline. She will explain how to use an Epi-pen and save a life! Stay tuned for the next episode! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Charline Baraban 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.music https://static.igem.org/peertube/streaming-playlists/hls/32cafad4-edaf-47e5-8284-cef8011d66cb/62e1e807-6dd9-447a-9bcc-22de404f1e44-master.m3u8https://video.igem.org/videos/embed/7gMqo9vx8DDxAqFyno9ehp224072022-10-08T08:15:00.976ZwebseriestoulouseAllergyYESiGEM 2022 TeamsNOhttps://video.igem.org/w/t6q1r6hDqF4MWUcecWcgirhttps://video.igem.org/lazy-static/thumbnails/4fb09d7c-3ce6-4ab1-84b1-da52961073a1.jpgNTHU_Taiwan: Description Animation (2022) [English]NTHU_Taiwan description page animation https://2022.igem.wiki/nthu-taiwan/descriptionhttps://static.igem.org/peertube/streaming-playlists/hls/db6841fe-a530-458e-bcca-4a64372508c7/96a442da-1d24-4233-a55c-e8e9c9a2fa1e-master.m3u8https://video.igem.org/videos/embed/t6q1r6hDqF4MWUcecWcgir330412022-10-08T08:15:06.652ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hi8owoQ7VZC5CLquAQH79Xhttps://video.igem.org/lazy-static/thumbnails/7964d96b-31f6-4dbe-8366-50ef20813345.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 9 - How to detect allergies? (2022) (English)Welcome to this new episode of the web series "Cracking Allergies"! This show is brought to you by the iGEM Toulouse team. We are proud to introduce you to this new educational series where you will learn everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this episode, meet Raphaël. He will detail how to detect allergies by presenting the different existing tests! Stay tuned for the next episode! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Raphaël Fruchard 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.music https://static.igem.org/peertube/streaming-playlists/hls/83f66a77-1283-42d7-a6dc-b84cb5815287/59c02499-8dad-4a7c-81b5-81c5b7a81f72-master.m3u8https://video.igem.org/videos/embed/hi8owoQ7VZC5CLquAQH79X2240142022-10-08T08:26:24.798ZwebseriesAllergytoulouseYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dFw12tN5Cfw6ssZddwjjmvhttps://video.igem.org/lazy-static/thumbnails/3c8c2392-1f4f-4fe9-bdf9-115d1f52a928.jpgToulouse_INSA-UPS: Cracking Allergies - Episode 10 - What is desensitization? (2022) (English)Welcome to this last episode of the web series "Cracking Allergies"! This show was brought to you by the iGEM Toulouse team. We have been proud to introduce you to this new educational series where you learned everything you need to know about allergies: from the causes of allergic reactions to how to treat them. In this last episode, Guillaume explains the concept of desensitization. We hope that you have enjoyed this video show! Follow us on social media to learn more about our science project on allergy detection: Instagram: @igem.toulouse Facebook: https://www.facebook.com/igemtoulouse2021/ LinkedIn: https://www.linkedin.com/company/18344675/ Research, script, and editing: Juliette Royer Editing and subtitles: Charline Baraban Host: Guillaume Gomez 2D animation: Antoine Dugas-Viallis, Instagram: @toinounouille Music: Channes, Instagram: @channes.music https://static.igem.org/peertube/streaming-playlists/hls/66b228cc-fae0-4231-bbf0-f59b344516dd/e7b5f00f-0df3-46af-a4b6-4704a671d4d7-master.m3u8https://video.igem.org/videos/embed/dFw12tN5Cfw6ssZddwjjmv1760162022-10-08T08:32:45.733ZwebseriesAllergytoulouseYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cbYutv728knSf5oH4Ed4oQhttps://video.igem.org/lazy-static/thumbnails/50255e59-7e68-45da-b2f4-6011aab41c2d.jpgNCKU_Tainan: MerSe Audiobook 1 (2022) [English]To share Synbio knowledge with a wider diversity of audiences, NCKU_Tainan recorded audiobooks, which are accessible to visually-impaired people. The contents were based on the latest advance of the Synbio industry. We believed that our effort made more people recognize the limitless potential of Synbio, and grasp a better understanding of the application of Synbio.https://static.igem.org/peertube/streaming-playlists/hls/5a9cc6d8-18d8-4c2c-8168-ff50f18d4ef8/8193594a-ed11-4825-b180-56c58145229f-master.m3u8https://video.igem.org/videos/embed/cbYutv728knSf5oH4Ed4oQ543042022-10-08T08:46:14.032ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4wdBCTcg4JDuMJjaBYXZMqhttps://video.igem.org/lazy-static/thumbnails/c55ada93-aaec-47c3-98cf-a79ea3fb6fb6.jpgNCKU_Tainan: MerSe Audiobook 2 (2022) [English]To share Synbio knowledge with a wider diversity of audiences, NCKU_Tainan recorded audiobooks, which are accessible to visually-impaired people. The contents were based on the latest advance of the Synbio industry. We believed that our effort made more people recognize the limitless potential of Synbio, and grasp a better understanding of the application of Synbio.https://static.igem.org/peertube/streaming-playlists/hls/1c8380c3-cd36-4ff6-a60f-8ba85c148f86/9a74a9ea-ebd0-44c2-9e0d-498b071c476e-master.m3u8https://video.igem.org/videos/embed/4wdBCTcg4JDuMJjaBYXZMq531022022-10-08T08:47:43.976ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uqazBfuaYFrvi8mS7tD1tuhttps://video.igem.org/lazy-static/thumbnails/961aa2a3-2d1b-441f-8ac5-bd4a4f407017.jpgFAFU-China: model1 (2022)FAFU-China: model1 (2022)https://static.igem.org/peertube/streaming-playlists/hls/e61fa2f1-c8dd-4f13-a63f-1c1c181427f2/c634b499-bfc2-4943-b5e9-e66237b6a012-master.m3u8https://video.igem.org/videos/embed/uqazBfuaYFrvi8mS7tD1tu21072022-10-08T09:27:54.541ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/x6dZ5rvZASpftwSjz5no81https://video.igem.org/lazy-static/thumbnails/eac54260-71d5-459c-a47b-9e9b2d1dd093.jpgCPU_Nanjing: Home page (2022)It is the video used in our home page.https://static.igem.org/peertube/streaming-playlists/hls/fbc604df-4d6a-4f3c-b685-75b5d261af56/cc00e69e-3c9f-4bdf-a8ff-5f178a121997-master.m3u8https://video.igem.org/videos/embed/x6dZ5rvZASpftwSjz5no816042022-10-08T09:45:07.958ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/m7topj54WoumrGLzyBFTgfhttps://video.igem.org/lazy-static/thumbnails/62bc8356-7f81-408f-bdb5-0dbb5f721134.jpgCU_Egypt: loading logo video (2022)video of our logo loading https://static.igem.org/peertube/streaming-playlists/hls/a2de1cfa-031d-4db5-9301-e309abb37928/07d81f72-ea5a-46f4-82c8-6caabc9c2eca-master.m3u8https://video.igem.org/videos/embed/m7topj54WoumrGLzyBFTgf601012022-10-08T09:55:42.672ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/f4gvEuoLnRrvDHUYGuvUS9https://video.igem.org/lazy-static/thumbnails/b61c5756-0aec-44a2-9ca2-f97b992ff2f8.jpgNCKU_Tainan: MerSe Talkshow (2022) [Chinese]Knowing that education events are sometimes tedious, NCKU_Tainan wanted to have an interesting and easy-to-understand means of education to encourage more people into the gates of synthetic biology, which is talk show.https://static.igem.org/peertube/streaming-playlists/hls/71d4bb58-40ad-4d79-a777-8612b71372f4/b540de7e-407b-474b-92df-b00501d542a2-master.m3u8https://video.igem.org/videos/embed/f4gvEuoLnRrvDHUYGuvUS91674052022-10-08T12:23:51.683ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aUkaFGEK8LGMgUm5XTAeC6https://video.igem.org/lazy-static/thumbnails/3b653c8a-02c2-4b43-9393-5cb9f6747786.jpgBJWZ-China: Icon animation (2022) [English]this is our icon animation, simple but impressive.https://static.igem.org/peertube/streaming-playlists/hls/5030bc6d-9aaf-42ed-8a56-603d08c8a4e1/113794b3-a334-444b-8372-bfa51f56fed1-master.m3u8https://video.igem.org/videos/embed/aUkaFGEK8LGMgUm5XTAeC670212022-10-08T11:49:29.452ZBJWZ-China: Icon animationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/afmKXTYR5TZbmKy9413mfYhttps://video.igem.org/lazy-static/thumbnails/1d8dfe75-e8cb-4155-b188-2f0d4c159f5e.jpgAFCM-Egypt: WIKI (2022)AFCM-Egypt: WIKI (2022)https://static.igem.org/peertube/streaming-playlists/hls/4ae3740a-c011-48ee-a117-372c041bf464/4fc37deb-c57d-4463-8943-d65d4a697877-master.m3u8https://video.igem.org/videos/embed/afmKXTYR5TZbmKy9413mfY50102022-10-08T12:23:57.164ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9yCDUMkK7aE54Y39B2PXe2https://video.igem.org/lazy-static/thumbnails/5e1fe9c9-f347-4881-aa8c-c331e9e61e10.jpgAFCM-Egypt: WIKI (2022) [English]AFCM-Egypt: WIKI (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/45577f9e-c80d-40fa-b0ee-59cde00401f7/77ef27b9-57c6-4b79-bbeb-dec3e24f6161-master.m3u8https://video.igem.org/videos/embed/9yCDUMkK7aE54Y39B2PXe243022022-10-08T12:23:58.987ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/m9qmmqMwtKPgkxcJWD6ifQhttps://video.igem.org/lazy-static/thumbnails/18ff7699-9e83-4087-b5dd-48e95d84025f.jpgAFCM-Egypt: WIKI (2022) [English]AFCM-Egypt: WIKI (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/a323baea-2195-4ed2-a708-e1e30948c398/ed25bea8-7dc1-4e54-bbb5-0674db72adc5-master.m3u8https://video.igem.org/videos/embed/m9qmmqMwtKPgkxcJWD6ifQ5042022-10-08T12:24:00.240ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/detAQ5XCPauAeTyLErwxLhhttps://video.igem.org/lazy-static/thumbnails/a872b004-facf-481c-8590-f6c03c12b090.jpgAFCM-Egypt: WIKI (2022) [English]AFCM-Egypt: WIKI (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/630f57a3-ca4d-4772-9be0-5535b90c8e64/3b8bd5e2-4cdb-4055-9674-2baeb916cb5d-master.m3u8https://video.igem.org/videos/embed/detAQ5XCPauAeTyLErwxLh21042022-10-08T12:24:01.950ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/543REUFxbEsr4ZCLCxKRHVhttps://video.igem.org/lazy-static/thumbnails/d728d173-7c86-43a3-8060-7481634054a8.jpgAFCM-Egypt: WIKI (2022) [English]AFCM-Egypt: WIKI (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/20d18bd8-0795-4844-9165-ee2c8fe1d98b/2666eed3-e31e-426c-92fd-0d025a18986a-master.m3u8https://video.igem.org/videos/embed/543REUFxbEsr4ZCLCxKRHV8042022-10-08T12:24:03.633ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/m5wgoiGZDFGu1VemdXoNYRhttps://video.igem.org/lazy-static/thumbnails/f5f412b3-5e02-4db2-b2af-fd52bc27348d.jpgTHINKER_CHINA: Hardware 3D Model Kit (2022)THINKER_CHINA: Hardware 3D Model Kit (2022)https://static.igem.org/peertube/streaming-playlists/hls/a2986660-14d9-42c8-88da-52a5b90f9539/63095c94-4c9f-4b3c-af30-03b562cf6421-master.m3u8https://video.igem.org/videos/embed/m5wgoiGZDFGu1VemdXoNYR14052022-10-08T12:33:56.167ZHardware3DModelYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kt2Jp9bJn2DZFHNuNtY35vhttps://video.igem.org/lazy-static/thumbnails/db70c315-5e04-4be0-98cc-d920df29c1f3.jpgMunich: TetR Dimer (2022)Simulation of the TetR dimer using PyMol. Check out our Wiki for details: https://2022.igem.wiki/munich/modelhttps://static.igem.org/peertube/streaming-playlists/hls/9da3c879-b1bc-44e4-8a6b-2b9a06f0e47d/4b8bc463-9558-4d3a-8f6e-f084a1d6fb0c-master.m3u8https://video.igem.org/videos/embed/kt2Jp9bJn2DZFHNuNtY35v2082022-10-08T13:23:07.378ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vT7SQLhK1C98dcVScxhZ2qhttps://video.igem.org/lazy-static/thumbnails/aa3e7961-178a-40c2-bb97-3c911f4ff838.jpgDKU_China: Hardware Demonstration (2022) [English]Hardware Demonstrationhttps://static.igem.org/peertube/streaming-playlists/hls/f1fc30f5-511a-4c5e-a5f5-b593343df6a6/fd0a4a16-513c-4c38-b266-6ba0b43e4f6a-master.m3u8https://video.igem.org/videos/embed/vT7SQLhK1C98dcVScxhZ2q320162022-10-08T13:59:53.035ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2zwrfw3ZL7DnV155zWVZRKhttps://video.igem.org/lazy-static/thumbnails/332f2347-4403-4fa3-bb42-97e5654c799f.jpgHUST-China: hp (2022)HUST-China: hp (2022)https://static.igem.org/peertube/streaming-playlists/hls/0cc77084-727b-47c6-b05a-86be11720e91/3aae2a06-4bd8-494b-921f-45b9527448fa-master.m3u8https://video.igem.org/videos/embed/2zwrfw3ZL7DnV155zWVZRK630242022-10-08T13:59:59.941ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2GbLfrCeD4jcWmjpn5vSwehttps://video.igem.org/lazy-static/thumbnails/f88eddee-db19-42a8-be24-4cfe206e27ed.jpgHUST-China: hp-sec (2022) [English]HUST-China: hp-sec (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/0db585b8-27d7-4663-9cdc-565088f93189/0ca6564c-6561-41ff-9674-d6ded11f0e99-master.m3u8https://video.igem.org/videos/embed/2GbLfrCeD4jcWmjpn5vSwe50432022-10-08T14:01:21.197ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jfT5893oosisGuBGKesViChttps://video.igem.org/lazy-static/thumbnails/7e55d53b-282e-4e71-ba8e-0954fce38f60.jpgThessaly: R.A.S.A RC - Boat (2022)This is a video of our RC-Boat on a lake being tested in real-life scenarios.https://static.igem.org/peertube/streaming-playlists/hls/93d861e0-c273-4f99-ace2-4eae11c515b2/55f841fc-2dfc-47a0-ab2a-77d9eea61aa7-master.m3u8https://video.igem.org/videos/embed/jfT5893oosisGuBGKesViC420502022-10-08T14:02:02.484ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fBmd6UfnSAaiaXQr8M7kfZhttps://video.igem.org/lazy-static/thumbnails/238d5ea5-43f4-488c-9186-b904a50792cb.jpgBUCT: musicMV (2022) [English]Buct team's promotional song MVhttps://static.igem.org/peertube/streaming-playlists/hls/764f6d5d-da05-42d8-8491-e64b3a2e3e71/c77ac7ed-8b47-4c8a-b0ce-41e94ac0fe44-master.m3u8https://video.igem.org/videos/embed/fBmd6UfnSAaiaXQr8M7kfZ2400162022-10-08T14:13:13.589ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dzZFHGQfSVD3GgzXyUQQYChttps://video.igem.org/lazy-static/thumbnails/9000c185-b8c8-4794-8ebf-438c19d1ae96.jpgNTHU_Taiwan: iGEM MAP (2022) [English]This is the collaboration project that we held. Please refer to our wiki page: https://2022.igem.wiki/nthu-taiwan/collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/65ecc202-f666-45b4-a9e8-25f449db1794/bc0b5a77-79c9-40cd-8dc2-5812e884f938-master.m3u8https://video.igem.org/videos/embed/dzZFHGQfSVD3GgzXyUQQYC2480412022-10-08T14:13:21.115ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tGrtHLZzgXQS2pt1o8kQZBhttps://video.igem.org/lazy-static/thumbnails/daea83ce-1306-444f-8db3-7adb878c32ad.jpgNMU_China: Cellular automata new (2022) [English]NMU_China: Cellular automata new (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/e04c322a-2320-48b3-b67d-dd1b5b527075/0e455106-c1a4-4fce-9f80-0eb8fc351110-master.m3u8https://video.igem.org/videos/embed/tGrtHLZzgXQS2pt1o8kQZB2290462022-10-08T14:37:45.344ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4eYLXEH1Nn5YPo3YgyUWK4https://video.igem.org/lazy-static/thumbnails/f29c4d2c-0c56-42f4-b538-7d9ee8c273a0.jpgNMU_China: Software new (2022) [English]NMU_China: Software new (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/1a3f12ed-2184-40af-95fb-344e9d1364d9/58f7557e-f9d5-4ef6-a853-ff026c7cf7ad-master.m3u8https://video.igem.org/videos/embed/4eYLXEH1Nn5YPo3YgyUWK481072022-10-08T14:42:06.071ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fksZwPyUpDKTUHDZ6hrxRNhttps://video.igem.org/lazy-static/thumbnails/34d1dd04-8764-4860-838a-6a88c5a76558.jpgFAFU-China: MODEL1 (2022) [English]model video1https://static.igem.org/peertube/streaming-playlists/hls/7417b50d-24bb-4b62-a27d-f3268102bb6c/da8a5b8c-ed15-49e4-82ee-34163120302b-master.m3u8https://video.igem.org/videos/embed/fksZwPyUpDKTUHDZ6hrxRN210112022-10-08T14:45:28.759ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ek1NGnPDkcAjwRsqNHr1xnhttps://video.igem.org/lazy-static/thumbnails/b41723d8-eff7-43ba-ba85-276ce6335bd4.jpgNMU_China: Webscraping program (2022) [English]NMU_China: Webscraping program (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/6bee6e2c-fd72-4238-b14d-5f230890fb53/feb5c5ca-5875-4c0d-8fd8-29f4e6760cc3-master.m3u8https://video.igem.org/videos/embed/ek1NGnPDkcAjwRsqNHr1xn410232022-10-08T14:52:59.358ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/af3WToNeEBwpgE7j9wRvwEhttps://video.igem.org/lazy-static/thumbnails/8b8beeba-6cf1-4ec9-8dcb-a640413ca770.jpgAachen: lightswirler in action (2022)This year's hardware project from iGEM Aachen 2022 was to build a luminous stirrer for our optogenetic switch approach. This short video shows our "lightswirler" in action.https://static.igem.org/peertube/streaming-playlists/hls/4ad879f8-914d-47a3-8501-4616e0b6b20e/6a86df05-ff3f-4329-accd-af55f18b2cdf-master.m3u8https://video.igem.org/videos/embed/af3WToNeEBwpgE7j9wRvwE150842022-10-08T15:26:42.302ZHardware luminous stirrerYESiGEM 2022 TeamsNOhttps://video.igem.org/w/v7WZLwAd8btSf6jGVnLCWjhttps://video.igem.org/lazy-static/thumbnails/7cae755c-ed84-48af-b877-cea8834de742.jpgAachen: Collaboration with Patras Medicine- iJET Video (2022) [English]In this short video we explained our motivation to participate in iGEM and briefly described how we want to tackle the problem of phosphate recovery and provide a solution through our project using methods of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/ebd16051-a639-477c-874e-c2757d0e38ae/2fefbcb9-16c3-4550-a834-4e25c31e17bf-master.m3u8https://video.igem.org/videos/embed/v7WZLwAd8btSf6jGVnLCWj470172022-10-08T15:40:04.708ZCollaborationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7hmvK3RW2WACBorbMFDY3khttps://video.igem.org/lazy-static/thumbnails/071517bc-88b1-472a-a935-72446b088da7.jpgIonis_Paris: Tutorial on how using a conception 3D site (2022) [English]Tutorial on how using a conception 3D site (2022) [English] wiki link: https://2022.igem.wiki/ionis-paris/https://static.igem.org/peertube/streaming-playlists/hls/32df5fad-7174-4ad8-be3d-7c98328ddbbf/ca847933-c9bb-4035-9fbd-4be2245637b4-master.m3u8https://video.igem.org/videos/embed/7hmvK3RW2WACBorbMFDY3k2430222022-10-08T15:45:16.701ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dtGkZwng7zGitEgz9ib3cfhttps://video.igem.org/lazy-static/thumbnails/4c18e054-4428-4b5a-aa0d-734f11777516.jpgIonis_Paris: Tutorial on how using a 3D printer (2022) [English]Tutorial on how using a 3D printer (2022) [English] wiki link: https://2022.igem.wiki/ionis-paris/https://static.igem.org/peertube/streaming-playlists/hls/650b9be7-d125-4fdb-88b2-4e3677e9f134/ae728fe4-7466-4637-ad78-87c6c3870d2c-master.m3u8https://video.igem.org/videos/embed/dtGkZwng7zGitEgz9ib3cf670122022-10-08T15:54:16.349ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pU8RSSR1waUSNdAiGoeoRxhttps://video.igem.org/lazy-static/thumbnails/9a7ec9ba-1692-43c6-a8d0-76e31b17ad45.jpgIonis_Paris: iGEM IONIS, Harris Wang (2022) [English]iGEM IONIS, Harris Wang (2022) [English] wiki link: https://2022.igem.wiki/ionis-paris/https://static.igem.org/peertube/streaming-playlists/hls/c189b586-b873-4238-a588-60afaad6bff9/948cd69c-965d-4dcf-b63a-78cb1fe87fcb-master.m3u8https://video.igem.org/videos/embed/pU8RSSR1waUSNdAiGoeoRx860112022-10-08T16:00:24.674ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eKV82ZkfQ2BnXAwkK5vESKhttps://video.igem.org/lazy-static/thumbnails/57740f8c-67bd-49a9-b8a1-08213042db82.jpgCU_Egypt: loading icon (2022)loading iconhttps://static.igem.org/peertube/streaming-playlists/hls/6f688597-74e2-4ac7-b5d7-c26574b7713f/21aa967e-c3d4-4908-9e66-519ae89e0a64-master.m3u8https://video.igem.org/videos/embed/eKV82ZkfQ2BnXAwkK5vESK140332022-10-08T16:11:33.552ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/u1L1gaPHgdrFrS6X99LHAVhttps://video.igem.org/lazy-static/thumbnails/88ae2df2-5bf7-4578-ab4a-c3cf7925d947.jpgFAFU: Pecking motor (2022) [English]FAFU: Pecking motor (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/e2db0050-17ab-4c3b-945b-6b7f72bfe34d/213abc8a-55ab-4c5f-8c0a-a9c6dfd877be-master.m3u8https://video.igem.org/videos/embed/u1L1gaPHgdrFrS6X99LHAV350142022-10-08T17:12:49.075ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/e2ouzWzXXstRZFSupJjej1https://video.igem.org/lazy-static/thumbnails/e275e7e8-ec7c-49ff-bd96-fd13e861389c.jpgToulouse_INSA-UPS: (2022) https://static.igem.org/peertube/streaming-playlists/hls/69786876-9f6c-4795-8eea-7330911684b8/d31e77a7-0cfd-4667-afeb-ce2f8a3bba6f-master.m3u8https://video.igem.org/videos/embed/e2ouzWzXXstRZFSupJjej185052022-10-08T16:58:30.761ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aRMfewMmUquD9jwLwMmY1Chttps://video.igem.org/lazy-static/thumbnails/9d83e723-d3ee-48ed-81d7-6e841f5b63dd.jpgIISER_TVM: Lab tour 2.0 (2022) [English]Accessibility remains an unsolved issue in appreciating the beauty of Science. How exciting it would be to get an opportunity to explore Biolabs around the globe! Worry not, team iGEM 2022 is here with a global lab tour video, covering the lab experience beyond the oceans that separate us. In collaboration with IISER Tirupati, iGEM Patras, Tec CEM, ABOA Finland, and IISER Mohali, we present to you, Come work with us!https://static.igem.org/peertube/streaming-playlists/hls/4fd5937d-dd7f-4c64-bb35-e9ffd0e163b4/af367ad7-e258-433b-9061-ff5e7e849302-master.m3u8https://video.igem.org/videos/embed/aRMfewMmUquD9jwLwMmY1C2330142022-10-08T17:36:09.979ZABOA FINLANDIISER TIRUPATITec CEMIGEM PATRASIISER MOHALIYESiGEM 2022 TeamsNOhttps://video.igem.org/w/x4qrYA1wAC9rfGMSYCFN1thttps://video.igem.org/lazy-static/thumbnails/30d82064-9e88-46d4-b3db-afad97e90a56.jpgFAFU: HP Action (2022) [Chinese]Our rural education actionhttps://static.igem.org/peertube/streaming-playlists/hls/fb8598a6-db37-4546-b845-df17c5fb12eb/6dbda546-bb1b-48ac-a2a8-82c1bc7775d8-master.m3u8https://video.igem.org/videos/embed/x4qrYA1wAC9rfGMSYCFN1t1400102022-10-08T17:38:40.850ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4crjEEuSnT2Ej7hUyNdaVBhttps://video.igem.org/lazy-static/thumbnails/9e95d043-2c2e-4f0a-a648-4dc1534fb9fe.jpgTecCEM: Inclusivity Background (2022)A short video for the Inclusivity Section of our Wikihttps://static.igem.org/peertube/streaming-playlists/hls/19e433dc-c1a7-421b-b1e5-21299a2d2029/d0fa99cd-3154-4a1b-92c3-79823d255bbc-master.m3u8https://video.igem.org/videos/embed/4crjEEuSnT2Ej7hUyNdaVB20002022-10-08T17:32:13.674ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6XMLdtkVTbYA8xgU2aPs6shttps://video.igem.org/lazy-static/thumbnails/600ccb3b-d851-4104-849a-fd3771e92acb.jpgCSMU_Taiwan: Docking Result (2022) [English]The docking result of our antigen and antibody.https://static.igem.org/peertube/streaming-playlists/hls/3047cd7c-deab-4375-a21f-9ac268e8eeec/995c9404-6df5-41ec-9e88-312dd444cfe3-master.m3u8https://video.igem.org/videos/embed/6XMLdtkVTbYA8xgU2aPs6s130292022-10-08T17:34:12.807ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kUN1UkM6mioR7BpQBJitV7https://video.igem.org/lazy-static/thumbnails/1cfe3521-2445-4950-b456-2469b594155f.jpgIISER_TVM: Interview of Dr Manjiri Bakre (2022) [English]Interview of Dr. Manjiri Bakre, CEO and Founder of OncoStem Diagnostics as part of the Women talk series.https://static.igem.org/peertube/streaming-playlists/hls/a13cab2e-5493-4cef-bd91-6f7bf14d457c/568951d9-416e-4a0a-a2c4-e6f865e636ce-master.m3u8https://video.igem.org/videos/embed/kUN1UkM6mioR7BpQBJitV72998082022-10-08T17:48:48.497ZIISER BEHRAMPURIISER TIRUPATIIIT RYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mcLFEyUHp5LBTimonhAahqhttps://video.igem.org/lazy-static/thumbnails/9ea18adb-df52-4f76-92bd-c4d20da9354b.jpgIISER_TVM: Interview of Dr Geetha Manjunath (2022) [English]Interview of Dr. Geetha Manjunath, CEO and Co-Founder of Niramai Health Analytics as part of the Women talk series.https://static.igem.org/peertube/streaming-playlists/hls/a39b7df9-8095-4742-9da7-31b54ecbb0ec/b857b6f2-9d1d-49ce-8b89-96a32dab5019-master.m3u8https://video.igem.org/videos/embed/mcLFEyUHp5LBTimonhAahq2679052022-10-08T18:13:56.767ZIISER TIRUPATIIISER BEHRAMPURIIT RYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5nYNWj4P8RFvYK7tHbNowUhttps://video.igem.org/lazy-static/thumbnails/dbae5349-ec93-4ed9-841b-a39aebee51fd.jpgIISER_TVM: Track you Biowaste (2022) [English]As research students, it is important for us to have the knowledge about how the waste generated in our research labs are disposed of safely. With our institute situated in the western ghats, there is more reason to be aware of the bio waste management in our institute. Safety is not something that can be achieved simply by drafting guidelines and enforcing regulations; rather, it should be an integral part of our goal to achieve academic excellence. We did intensive research and a series of interviews with the people involved in the biowaste management system. https://static.igem.org/peertube/streaming-playlists/hls/23762f0a-72cc-4ed3-9682-5cfcecbb9348/1d96bb92-c7a3-4c43-8c29-1c9bdc7ccc5e-master.m3u8https://video.igem.org/videos/embed/5nYNWj4P8RFvYK7tHbNowU6220162022-10-08T20:00:14.657Zsafetywhere does waste gowhere does biowaste gobiowasteYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tSULvqg2BbTEfCDybooSA5https://video.igem.org/lazy-static/thumbnails/4d040095-514e-4381-96c6-90049646f3ec.jpgThessaloniki_Meta: thess-fair (2022) [Greek]Thessaloniki_Meta: thess-fair (2022) [Greek]https://static.igem.org/peertube/streaming-playlists/hls/e1c2738c-9b69-451b-b12c-f771536a5c50/442963dc-d3d3-42a1-a001-519768ed1192-master.m3u8https://video.igem.org/videos/embed/tSULvqg2BbTEfCDybooSA5130112022-10-08T20:23:45.900ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6gRq2mbdMneX1ijByCsjTShttps://video.igem.org/lazy-static/thumbnails/b1e600a5-9d73-4f13-bcd6-e3006e25a6ef.jpgIISER_TVM: BREAST CANCER SCREENING CAMP (2022) [English]We are proud to inform you that, in collaboration with the Indian Medical Association, team iGEM IISER-TVM conducted a breast cancer screening camp on June 11th, 2022. Take a glance at the day's highlights:) Recently, some of our team members interacted with the housekeeping staff on our campus to assess what percentage of the local population was aware of self-detection methods for breast cancer. The lack of breast cancer awareness was worrisome. This was our motivation to organise a breast cancer screening drive and awareness campaign here in our institute. We thank everyone for making this endeavour a successhttps://static.igem.org/peertube/streaming-playlists/hls/2ab44d6b-fa49-4224-8cdf-c95fb1de0758/15eb4e9d-91b1-426d-a37d-2dc88016bcc3-master.m3u8https://video.igem.org/videos/embed/6gRq2mbdMneX1ijByCsjTS39042022-10-08T20:19:45.981ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/onzJ1oZS14Unng9bmtdfskhttps://video.igem.org/lazy-static/thumbnails/51ce6800-7df1-4e48-b310-11d551d6d394.jpgIISER_TVM: Let's face it with Courage - A breast cancer awareness drama (2022) [English]A short skit spreading awareness regarding breast cancer. Made by the iGEM IISER TVM team in collaboration with Theatrics Society of IISER TVMhttps://static.igem.org/peertube/streaming-playlists/hls/b52c73f7-dcf2-44c0-a16e-b4f18e3df07f/9d5a67e2-5029-4875-a685-0fe1c30f7823-master.m3u8https://video.igem.org/videos/embed/onzJ1oZS14Unng9bmtdfsk7060132022-10-08T21:04:56.819Zbreast cancer awarenessawareness monthYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cyzD27931tM1rFyvSsZuZbhttps://video.igem.org/lazy-static/thumbnails/4db0df93-a82a-4ca5-b056-a8676e040937.jpgIISER_TVM: Project Video (2022) [English]To be addedhttps://static.igem.org/peertube/streaming-playlists/hls/5da10e64-0aac-44ac-96a0-7eaabdc08aec/271c3ec8-1df1-4bc3-9081-0368a513cc53-master.m3u8https://video.igem.org/videos/embed/cyzD27931tM1rFyvSsZuZb610502022-10-08T21:27:14.460ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1w8YzKxqSdovwwPKfNYt5ehttps://video.igem.org/lazy-static/thumbnails/4da9560f-20f2-4797-bad2-e97d9e5e8992.jpgIISER_TVM: Public survey (2022) [English]Public Interviews were conducted to check the level of awareness regarding breast cancer among the general public. We interviewed people from different age groups and background from across the country. https://static.igem.org/peertube/streaming-playlists/hls/04353a6b-cd16-4148-9e5c-46a3257e8c61/73e8303c-6f21-47ba-8084-2e5a5bb87343-master.m3u8https://video.igem.org/videos/embed/1w8YzKxqSdovwwPKfNYt5e5950162022-10-08T22:09:39.689ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/csXX4vGJYy4igHFVvV3Qythttps://video.igem.org/lazy-static/thumbnails/0af687b9-44fd-4321-9eaa-4a763bec1fb8.jpgToulouse_INSA-UPS: animation bacteria DAISY (2022) https://static.igem.org/peertube/streaming-playlists/hls/5cd857e0-c33d-48ac-9072-3458e126099b/277aa0f0-b375-4285-ab87-d8869d7ac914-master.m3u8https://video.igem.org/videos/embed/csXX4vGJYy4igHFVvV3Qyt12014832022-10-08T22:44:01.642ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/w6L96DaSqCuM547wkXSeiphttps://video.igem.org/lazy-static/thumbnails/247e630d-5798-4bb9-8427-e067ab6b9b4b.jpgLZU-HS-China-C: inclusivity (2022) [Chinese]We invited a blind friend to take a video for our project to introduce synthetic biology. https://2022.igem.wiki/lzu-hs-china-b/inclusivityhttps://static.igem.org/peertube/streaming-playlists/hls/f3c014a5-7290-4ce9-9f00-28926eb16d65/6e101f3c-4c86-40d9-8a3e-c7f89037dc06-master.m3u8https://video.igem.org/videos/embed/w6L96DaSqCuM547wkXSeip215062022-10-08T23:51:18.450ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5oBt7M7EKHXrg2KyHntJwKhttps://video.igem.org/lazy-static/thumbnails/a6116b99-c8ba-4fea-9fe2-f38bebbc87be.jpgBUCT: A Video (2022) [English]One of the videos of the BUCT teamhttps://static.igem.org/peertube/streaming-playlists/hls/238cc675-0714-4264-88a7-1097ded11887/18e11db6-788b-417f-a387-4506bbd4cad5-master.m3u8https://video.igem.org/videos/embed/5oBt7M7EKHXrg2KyHntJwK120062022-10-09T00:23:31.710ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rXa5Zk36LPh2bGUcaUDxCnhttps://video.igem.org/lazy-static/thumbnails/67381620-1e51-409d-8f71-b9e5eed599e7.jpgINSA_Lyon1: tuto_hardware (2022)tutorial software INSA_LYON1 teamhttps://static.igem.org/peertube/streaming-playlists/hls/d227f92a-3a86-402f-9f0c-7b040716d801/95913266-1c36-4ed0-97c0-ab888a61b143-master.m3u8https://video.igem.org/videos/embed/rXa5Zk36LPh2bGUcaUDxCn1340272022-10-09T02:03:07.753ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6GQQZDbgskyiEVqVL5DwmQhttps://video.igem.org/lazy-static/thumbnails/a7dd3add-dea2-4083-8989-a9b6970c027f.jpgMingdao: Current vaccine explain (2022) [English]The short video we made explains the principles of mRNA and adenovirus vaccines compared to the traditional protein vaccine.https://static.igem.org/peertube/streaming-playlists/hls/2e318bb4-e04c-4165-94e7-77a586b40eb8/ab3debbb-a6e3-4179-a51f-d9e70040491c-master.m3u8https://video.igem.org/videos/embed/6GQQZDbgskyiEVqVL5DwmQ900412022-10-09T02:45:28.797ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bDXw5RtsYavpu6t6PyCUP7https://video.igem.org/lazy-static/thumbnails/e680a13b-4709-48cc-bc2a-577a261556f5.jpgMingdao: FLOWCHART & EXPECTED RESULTS (2022) [English]A short animation that describes our experimental flowchart and the expected results. https://static.igem.org/peertube/streaming-playlists/hls/56481ee5-d6e2-42a9-91c8-5caeee3e69bc/e96cadf4-19e7-4556-952d-7aaeccba82a1-master.m3u8https://video.igem.org/videos/embed/bDXw5RtsYavpu6t6PyCUP7260292022-10-09T02:49:32.350ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dLgEMGUpwJN1eBbxxi8JuRhttps://video.igem.org/lazy-static/thumbnails/0f950719-8e1e-4d87-a166-49ac5f2dc18d.jpgUIncheon: BackGroundVideo (2022)It is the video used in our homepage.https://static.igem.org/peertube/streaming-playlists/hls/675c0bc7-af01-48a5-ae22-60968c3bd1b9/a590423f-bc3c-4b49-9ae9-5c775c071326-master.m3u8https://video.igem.org/videos/embed/dLgEMGUpwJN1eBbxxi8JuR4604832022-10-09T03:02:16.223ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6n2XYgZYjA9ca6ztfTvUGBhttps://video.igem.org/lazy-static/thumbnails/a0185be2-72c5-433f-80ff-82bbf33502f0.jpgFAFU-China: GAD-2 (2022) [English]FAFU-China: GAD-2 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/2b6d8600-a173-490d-b78a-21cb607c123b/50bf8b72-8f9c-4390-afce-d6ee4f0fdf03-master.m3u8https://video.igem.org/videos/embed/6n2XYgZYjA9ca6ztfTvUGB200142022-10-09T03:48:21.429ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8jAimqksYGhqWyWTuUi5WWhttps://video.igem.org/lazy-static/thumbnails/ea271df0-d9d0-4563-b1ce-90a68de8e809.jpgFAFU-China: Dl-GAD5 (2022) [English]FAFU-China: Dl-GAD5 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3b487f00-2ffd-4f1b-af12-fa582704b42a/e6ab7698-437e-4463-93d1-2b9b902bb541-master.m3u8https://video.igem.org/videos/embed/8jAimqksYGhqWyWTuUi5WW190112022-10-09T03:50:17.225ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1KUTxSomFuHk3NMWjoUymrhttps://video.igem.org/lazy-static/thumbnails/edeafa37-aec9-4a6a-b76d-fbff49f0b742.jpgFAFU-China: Dlo030022-3D (2022) [English]CAM2https://static.igem.org/peertube/streaming-playlists/hls/06219373-7f34-42ca-9c64-ae79e1b8bde1/d4a6c142-99b1-4a4e-8883-5d86d045ca49-master.m3u8https://video.igem.org/videos/embed/1KUTxSomFuHk3NMWjoUymr210112022-10-09T03:51:15.891ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2c71gE9BLqFiYhpuDRzpu9https://video.igem.org/lazy-static/thumbnails/94578a87-442c-48eb-8068-63b2a0c8d4aa.jpgFAFU-China: Dlo025420-3D (2022) [English]CAM1https://static.igem.org/peertube/streaming-playlists/hls/09a60547-feaa-4161-943a-1a28665c5074/e12f66f8-67f4-4a3e-a23f-b2c9c7b95824-master.m3u8https://video.igem.org/videos/embed/2c71gE9BLqFiYhpuDRzpu9210112022-10-09T03:51:54.811ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/a49mxg5NiSCSeKRsRAd9M8https://video.igem.org/lazy-static/thumbnails/ed03468c-559f-46f9-96e8-b1838edfdc27.jpgMIT_MAHE: CSNP_capsules (2022)Animation for the Wiki homepage Wiki: https://2022.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/4952a0ae-486c-4029-8830-650013b716f9/2d0f366b-146e-4411-93d5-8725792c33a2-master.m3u8https://video.igem.org/videos/embed/a49mxg5NiSCSeKRsRAd9M8300172022-10-09T04:29:50.565ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bychQzMiDQ8ndPYDyADQvchttps://video.igem.org/lazy-static/thumbnails/38ed4b89-6b40-43a4-9716-52ea7d926b3c.jpgFAFU-China: Electrophoresis PCR experiment (2022) [English]FAFU-China: Electrophoresis PCR experiment (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/557a2527-b130-4a17-be0f-41274985db85/00385581-c07b-4d70-ba65-b04de959f96e-master.m3u8https://video.igem.org/videos/embed/bychQzMiDQ8ndPYDyADQvc327042022-10-09T05:00:01.915ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8z2wctL6zhMS3BybetStBXhttps://video.igem.org/lazy-static/thumbnails/e9ed1239-0894-4bf8-8547-13ec6d2c1755.jpgFAFU-China: sanxiaxiang (2022) [English]FAFU-China: sanxiaxiang (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3d4c73c1-2654-47a4-a78e-3ca587aef611/71ae6801-c07d-4aa5-9e4d-4eaec1071e5d-master.m3u8https://video.igem.org/videos/embed/8z2wctL6zhMS3BybetStBX338062022-10-09T05:04:24.481ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5SCigXHCQetqzYnH2CH3gkhttps://video.igem.org/lazy-static/thumbnails/87f00c1c-903b-4252-a00e-0afb1223406b.jpgFAFU-China: kindergarten (2022) [English]FAFU-China: kindergarten (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/27761ccb-b92d-4fb8-98f2-ad96d67db0c9/aec4475e-8c5f-4f47-9862-57e2a7dde9bc-master.m3u8https://video.igem.org/videos/embed/5SCigXHCQetqzYnH2CH3gk190062022-10-09T05:07:11.021ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tfhTrw2uBb6srRRdvDydSNhttps://video.igem.org/lazy-static/thumbnails/9e79af41-3b0d-458e-93ba-65cd8222ce26.jpgFAFU-China: longan science technology backyard (2022) [English]FAFU-China: longan science technology backyard (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/dca59042-c8c5-4bb3-8fcf-93d82d109d22/6591594e-5fe0-4d3c-bdc1-f349738c98a1-master.m3u8https://video.igem.org/videos/embed/tfhTrw2uBb6srRRdvDydSN193012022-10-09T05:11:41.691ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2VMGHDaNfECBFyjX3pyRprhttps://video.igem.org/lazy-static/thumbnails/8f07a91b-31c2-4e3f-86c4-6ce8669e75cd.jpgFAFU-China: Research in Yuxi town (2022) [English]FAFU-China: Research in Yuxi town (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/0f9bb92d-6433-4bed-8fb0-ab689bd5dca3/e135ac42-718b-4078-92e1-9ba98161efe2-master.m3u8https://video.igem.org/videos/embed/2VMGHDaNfECBFyjX3pyRpr24082022-10-09T05:11:45.735ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xfa2h6Ws6x2sTpk97LctM5https://video.igem.org/lazy-static/thumbnails/955108bd-8fda-4e12-8e66-3c264f9c560e.jpgFAFU-China: Video of the the No.3 Middle School Of Fuzhou Preach vlog (2022) [English]FAFU-China: Video of the the No.3 Middle School Of Fuzhou Preach vlog (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/fd054571-6d45-47c6-bf18-c116635d2bba/b2799556-944b-4d80-8a38-cb72a6dae628-master.m3u8https://video.igem.org/videos/embed/xfa2h6Ws6x2sTpk97LctM592072022-10-09T05:13:40.142ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eKLZicRt4yZqTqGwnbYoidhttps://video.igem.org/lazy-static/thumbnails/dc8a77bb-0239-4c16-8881-0b2208dd3bbb.jpgFAFU-China: The collection of photos during FAFU-China Dragon Boat Training Camp (2022) [English]FAFU-China: The collection of photos during FAFU-China Dragon Boat Training Camp (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/6f63826b-6b65-4d9e-8810-e055dc3ef3fe/e06b6651-bbc1-41df-b8b6-afc96123b66c-master.m3u8https://video.igem.org/videos/embed/eKLZicRt4yZqTqGwnbYoid153012022-10-09T05:14:09.322ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/t1rwnfxix1NykPg19TT314https://video.igem.org/lazy-static/thumbnails/3eb35e78-f3ce-482c-a94c-4f2619c7a7cd.jpgTHINKER_CHINA: Hardware 3D Model Kit Preview(2022) [English]THINKER_CHINA: Hardware 3D Model Kit Preview(2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/dab67928-520d-4417-98f3-ec740a1681f3/b2f53989-f0c5-4e5d-8bb5-b75cb7d1489e-master.m3u8https://video.igem.org/videos/embed/t1rwnfxix1NykPg19TT314170202022-10-09T05:17:47.427ZHardwarePreviewYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tFnySdtGXCwy1TtdyHQtdnhttps://video.igem.org/lazy-static/thumbnails/4e2d1425-0c3d-42c3-a29e-11121c889301.jpgUIncheon: Dynamic_Incheon (2022)It is the video used in our homepage.https://static.igem.org/peertube/streaming-playlists/hls/e0260ab1-7e3b-4dfe-92fe-9a774cc8e229/64f7425d-cbcd-4223-a7f8-f987eeddc83e-master.m3u8https://video.igem.org/videos/embed/tFnySdtGXCwy1TtdyHQtdn305032022-10-09T05:55:55.969ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cab4vazXQEmJFzijmSTAyqhttps://video.igem.org/lazy-static/thumbnails/b1a21e24-b6bd-4383-abcf-a7d4ed79ff63.jpgFAFU-China: go away, virus! (2022) [English]FAFU-China: go away, virus! (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/5a5c6b4b-f808-4f5a-8fc3-3459058a9bb8/ac15fa6e-9ee6-4c9e-8857-e144a1c501f9-master.m3u8https://video.igem.org/videos/embed/cab4vazXQEmJFzijmSTAyq1040112022-10-09T06:24:00.490ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ooBPK13bfyjPs9VpMNDTJhhttps://video.igem.org/lazy-static/thumbnails/800d8961-cc5d-497d-b6ce-59e200d9c396.jpgNTHU_Taiwan: Ocean_Collab_Video (2022) [English]NETLANTIS UCPH iGEM Team aimed to invent environmentally friendly biomaterials which are related to the ocean. Therefore, UCPH iGEM came to us because Taiwan is surrounded by the Pacific Ocean. Furthermore, they invited us to take a short film by the sea saying "Inspiring" in Mandarin. Please refer to our wiki: https://2022.igem.wiki/nthu-taiwan/collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/b5517d80-ca56-4cc5-9535-21cabbd0a9c8/c2d7291f-1d2a-4fbf-8a53-fc64624760cb-master.m3u8https://video.igem.org/videos/embed/ooBPK13bfyjPs9VpMNDTJh97042022-10-09T07:12:14.856ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tBqbmtjoPmPWw2u5Aheyu5https://video.igem.org/lazy-static/thumbnails/f0d61223-b4fb-4429-9302-da4b599cd49e.jpgNTHU_Taiwan: 【Podcast】NTHU_Taiwan X NYCU_Formosa (2022) [Chinese]NTHU_Taiwan Podcast project with NYCU_Formosa Please refer to our wiki: https://2022.igem.wiki/nthu-taiwan/collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/df98ad21-f1c5-4b76-951b-bc20dcec8b24/2eca1f2b-1ede-440a-bf8a-e9912c477b0c-master.m3u8https://video.igem.org/videos/embed/tBqbmtjoPmPWw2u5Aheyu5792062022-10-09T07:23:48.017ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xwVguLNsj9Vbt7oVDLmAy5https://video.igem.org/lazy-static/thumbnails/5464a061-ee49-4f0a-9d95-f9554536073a.jpgNTHU_Taiwan: 【Podcast】NTHU_Taiwan X NCHU_Taichung (2022) [Chinese]NTHU_Taiwan podcast project with NCHU_Taichung. Please refer to our wiki: https://2022.igem.wiki/nthu-taiwan/collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/ff5c7049-8555-47ae-8f4c-8e835b19f64c/0ec4179e-4d2e-445c-ae6b-a842864cfeed-master.m3u8https://video.igem.org/videos/embed/xwVguLNsj9Vbt7oVDLmAy5656002022-10-09T07:30:24.225ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9QHXUoDkgXPkHVQknsmubrhttps://video.igem.org/lazy-static/thumbnails/be75d897-6737-48c2-9719-9f7463906c5e.jpgDUT_China: education_music (2022) [English]Wiki link: https://2022.igem.wiki/dut-china/communicationhttps://static.igem.org/peertube/streaming-playlists/hls/4796abdf-a28e-4d68-9989-48f527c538ed/ddfb8583-54f8-4d19-ba38-9bf7c051c5d2-master.m3u8https://video.igem.org/videos/embed/9QHXUoDkgXPkHVQknsmubr1220152022-10-09T07:38:40.587ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eNP4YpEZ9eSw3pbba3JUxHhttps://video.igem.org/lazy-static/thumbnails/76e0b9fc-c47a-467f-a8b8-25139b8e3097.jpgNTHU_Taiwan: CSMU Taiwan Collab Theme Song_1080p (2022) [English]CSMU_Taiwan wrote a song to convey the idea of synthetic biology and invited iGEMers to chorus. Honestly, the melody of the Theme Song is beautiful and delightful, so we are so glad to sing together. If you are interested in listening to this song, please click the image below. NTHU_Taiwan wiki page: https://2022.igem.wiki/nthu-taiwan/collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/6fd005e2-9959-48ef-982d-c00f2861a44f/83145f6b-c8c1-4eec-85d7-564af9361920-master.m3u8https://video.igem.org/videos/embed/eNP4YpEZ9eSw3pbba3JUxH183052022-10-09T07:44:26.828ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cJ2QDzFmKgRAKaF47HuErphttps://video.igem.org/lazy-static/thumbnails/d4b98c7d-b80e-4f33-af57-61983064cb77.jpgFreiburg: Interview DASDING (2022) [German]Speaking about bioproduction of Indigo and our daily lab work? This opportunity we had speaking with DASDING-UNSERFREIBURG, a german instagram channel, posting about Freiburg, where our team is based in. During the interview we mainly focused on the bioproduction of Indigo and the problems revolving around chemical synthesis of this blue dye. By presenting our lab and our work in an accessible way that is still relevant for our audience (as everyone loves a nice pair of jeans!) we wanted to show, that science is not something mysterious that is done in some secret lab in a basement. Normal people are working in this field, people that are just like everyone else, and sometimes, scientific research isn’t any farther from you than a few hundred meters! The interview was later posted on the instagram channel of UNSERFREIBURG.https://static.igem.org/peertube/streaming-playlists/hls/5ef2e593-03e9-42df-9d07-5ae6a744a209/21099f38-6c6c-4d25-9af9-52eee698c235-master.m3u8https://video.igem.org/videos/embed/cJ2QDzFmKgRAKaF47HuErp1340102022-10-09T11:24:57.406ZDASDINGInterviewbioproductionradio-channelindigoYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6mkPmHHx4hmNvihkw9GXk6https://video.igem.org/lazy-static/thumbnails/d8d1967a-8570-4a21-b2a4-0ef415504a40.jpgHUST-China: design1-PmrCAB(2022) [English]HUST-China: design1-PmrCAB(2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/2b54c7f3-2e7c-4a42-bb88-043fc9e3584f/bc6daf7a-be5d-4a1f-ae04-d0f505bac8a5-master.m3u8https://video.igem.org/videos/embed/6mkPmHHx4hmNvihkw9GXk61701022022-10-09T08:52:46.257ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hyBGRa1iRUmNR8b1VfbRV2https://video.igem.org/lazy-static/thumbnails/f862b6b5-a440-46d9-b4e7-a600cb899766.jpgHUST-China: design-Fusion protein(2022) [English]HUST-China: design-Fusion protein(2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/862005d2-0cc8-48ef-a1b9-e654d0bf0877/443b0d1e-3a51-4854-976f-80fdaffad953-master.m3u8https://video.igem.org/videos/embed/hyBGRa1iRUmNR8b1VfbRV2190642022-10-09T08:53:23.527ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/23H7WZRF1esoKFM9Quxk4Shttps://video.igem.org/lazy-static/thumbnails/ac897d34-8e3a-4797-b964-af82c7791ecf.jpgWarwick: Pyre Landing (2022)Warwick: Pyre Landing (2022)https://static.igem.org/peertube/streaming-playlists/hls/0879f798-cdb9-48d1-849f-1ac1bc75a8a4/52fdd761-35d4-4183-bee3-0bbc53105f01-master.m3u8https://video.igem.org/videos/embed/23H7WZRF1esoKFM9Quxk4S23012022-10-09T08:54:54.041ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eDR6vnRbcuYHur9S9LRYDEhttps://video.igem.org/lazy-static/thumbnails/32d835ec-6ac4-4a10-9ff3-ae5769a45f8f.jpgSogang_Korea: Software_GUI_1 (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/6e8f93f1-5813-4c81-af45-c5b92a89b750/bea53b52-e8d0-44e1-b048-dd61bff57b30-master.m3u8https://video.igem.org/videos/embed/eDR6vnRbcuYHur9S9LRYDE66032022-10-09T09:34:44.755ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7KxEei8oEmBgCNt8w3NdYJhttps://video.igem.org/lazy-static/thumbnails/7b39b377-5711-41f5-95a1-571f8c2197ef.jpgSogang_Korea: Software_GUI_1 (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/36ab531f-7477-442f-a741-0cc1896071da/6239188e-55aa-40e4-9e37-c589a9106621-master.m3u8https://video.igem.org/videos/embed/7KxEei8oEmBgCNt8w3NdYJ63062022-10-09T09:37:13.899ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mPwRQwnJ7GihyGWAyLPbT9https://video.igem.org/lazy-static/thumbnails/9bf8ab7c-0f4e-46e5-8a12-b53ed5a04df5.jpgCityU_HongKong: Interview with the Oncologist Dr Jemma Arakelyan (2022) [English]Our team had the opportunity to interview **Dr Jemma Arakelyan**, an oncologist with eight years of experience. In this interview, we discuss what attracted Dr Arakelyan to the field and her motivations for continuous efforts. We indulged in discussions regarding cancer treatments commonly used, and the meticulous approach doctors must take to administer a beneficial plan. Our team introduced iGEM and our project to Dr Arakelyan and explained our approach to anticancer drug development; she then expressed her opinions and suggested areas of improvement for the overall enhancement of our project. We would like to thank Dr Arakelyan for her time to join us in this interview and the advice and knowledge she has shared with us to better our end result. ____________________________________________ Visit our wiki page to learn more about our project: https://2022.igem.wiki/cityu-hongkonghttps://static.igem.org/peertube/streaming-playlists/hls/a899bf82-23cd-47e5-9b26-493fff778a96/45b8e84b-50bc-41ca-8501-a01caa198cb4-master.m3u8https://video.igem.org/videos/embed/mPwRQwnJ7GihyGWAyLPbT96090122022-10-09T10:12:17.364ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/s9cNV8dURweWGo2GoxRdZYhttps://video.igem.org/lazy-static/thumbnails/b0d424f9-dbbe-4aa9-8885-c336c547928c.jpgSogang_Korea: Pippet full (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/d3b2d533-0be0-48b0-8e0e-6705e366c7aa/df60e052-e416-4403-ba5a-98b1a1503886-master.m3u8https://video.igem.org/videos/embed/s9cNV8dURweWGo2GoxRdZY380112022-10-09T09:54:58.997ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dArhDuEziqN6gRQW9M8gvEhttps://video.igem.org/lazy-static/thumbnails/af0448e8-f98e-4ef8-89f4-e555f5a4c3a8.jpgSogang_Korea: Pippet zoom (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/65fc8928-5c87-4829-a486-de382fb5803c/2d5c2659-3f85-4f38-825e-97d9cbf51f41-master.m3u8https://video.igem.org/videos/embed/dArhDuEziqN6gRQW9M8gvE70122022-10-09T09:55:33.304ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sRgyzBKMxLDuyfcs2CiUX8https://video.igem.org/lazy-static/thumbnails/bb44b1eb-b40a-438d-a4de-04b9d970c00e.jpgSogang_Korea: Pippet mix (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/d96ea3e0-2059-4899-8041-26c4fab1bc55/e0ace756-3aa4-48c9-b0c8-a144064e161a-master.m3u8https://video.igem.org/videos/embed/sRgyzBKMxLDuyfcs2CiUX8210132022-10-09T09:56:26.532ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kFhXvoUL3VCimA6xDeMDEChttps://video.igem.org/lazy-static/thumbnails/a19103b1-9cfd-4517-8f7c-0b37527ad4ee.jpgSogang_Korea: Suction full (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/9f5a1779-b697-4352-b445-029297b6662c/67feb3a4-dda1-462c-a19a-733b423310e5-master.m3u8https://video.igem.org/videos/embed/kFhXvoUL3VCimA6xDeMDEC24082022-10-09T09:57:32.904ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eaJJFrgcxwkUtYrTVHRE2xhttps://video.igem.org/lazy-static/thumbnails/b2492258-cf3a-43e3-8687-e96fa3e8c590.jpgSogang_Korea: Cap open open (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/6aa2d55b-0031-4687-9ef6-78304454ca49/d3c691a1-b9c4-400f-8537-f4fbfa4b524a-master.m3u8https://video.igem.org/videos/embed/eaJJFrgcxwkUtYrTVHRE2x220102022-10-09T09:58:15.352ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3uH8CFW1syyS97pTusKLk1https://video.igem.org/lazy-static/thumbnails/08783ba1-4e61-40c1-aee5-83bf3659cb79.jpgSogang_Korea: Cap open release (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/1434737d-07c2-4565-b971-1e626fb38a96/74876fac-aa57-44f6-9046-603e55f841e9-master.m3u8https://video.igem.org/videos/embed/3uH8CFW1syyS97pTusKLk113072022-10-09T09:58:48.894ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xag6DwcGgdifxCqCyedfAahttps://video.igem.org/lazy-static/thumbnails/585bac98-9b13-4e45-86de-16efbdd70b66.jpgSogang_Korea: Plate adjust (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/fc564be5-5e9a-4b4c-a3f3-474b2f21fe65/8870fa9d-f74f-4a60-b791-72d727f04d87-master.m3u8https://video.igem.org/videos/embed/xag6DwcGgdifxCqCyedfAa11072022-10-09T09:59:33.057ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vUQWjz94QcQUBSvGnYa712https://video.igem.org/lazy-static/thumbnails/454d6005-c761-4227-9eb7-e633471a5389.jpgCU_Egypt: home page background video (2022)home page background videohttps://static.igem.org/peertube/streaming-playlists/hls/f239dafb-b5f2-4295-8bdc-8222bb2e0661/b2df43de-48e5-471f-ab21-7890f2d86718-master.m3u8https://video.igem.org/videos/embed/vUQWjz94QcQUBSvGnYa71215082022-10-09T10:03:19.440ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mnT9hnnXDYicbsrbZjqxM1https://video.igem.org/lazy-static/thumbnails/5679693c-b0a3-4ce0-84f5-6dc0e9ab548d.jpgSogang_Korea: Get new plates full (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/a504e905-5eb4-4b2c-9b78-20c97182080e/79c2cb93-eb82-4278-9313-0ada4ea1f8fb-master.m3u8https://video.igem.org/videos/embed/mnT9hnnXDYicbsrbZjqxM128072022-10-09T10:02:23.295ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tx5tBwg36zL1wP6ZtoDrAUhttps://video.igem.org/lazy-static/thumbnails/606d0738-be5d-4b1d-8fea-1ead709e8968.jpgJilin_China: description (2022) [English]Jilin_China: description (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/defd8f25-c297-49db-aab8-5a5be56ec334/aad79fd1-64e5-489c-a585-b5f2baa4ca84-master.m3u8https://video.igem.org/videos/embed/tx5tBwg36zL1wP6ZtoDrAU187012022-10-09T10:10:23.437ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tZmtVAMNmnr1XMHKFq2tzuhttps://video.igem.org/lazy-static/thumbnails/421786b6-a56b-465d-8991-00b7608441a4.jpgSogang_Korea: Grip motion (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/e2a8c2c7-3418-4fcf-bfbe-f21538f1bfaa/061d352e-7e24-4738-aedb-a3c82c2b153d-master.m3u8https://video.igem.org/videos/embed/tZmtVAMNmnr1XMHKFq2tzu10062022-10-09T10:13:17.187ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/b95JbNTcMXFMPFEwsnmugJhttps://video.igem.org/lazy-static/thumbnails/8433c798-d0b2-4538-8953-d10ee1df0d66.jpgCityU_HongKong: HKUST 2022 Symposium Vlog (2022) [English]**Our iGEM team, SeCure, was invited to the 2022 Symposium hosted by HKUST**. The iGEM teams in Hong Kong came together at the Symposium to meet and deliver comprehensive presentations about their projects. We got the opportunity to learn about the inspiration behind each project, and the execution approaches exclusive to each team. We got to receive and give constructive feedback and suggestions to each team to enhance one another's work and implement the advice given. We met the other teams and formed a bond through our presentations and discussions. Our team interviewed members from each team to discover what attracted them to join iGEM in the first place and their experiences so far. The excursion was an enlightening and appreciable moment in our iGEM journey. ___________________________________________ Visit our wiki page to learn more about our project: https://2022.igem.wiki/cityu-hongkonghttps://static.igem.org/peertube/streaming-playlists/hls/521c4006-1e99-4e68-ae38-7824851016b0/1e27e8b7-3428-4d5a-831f-d19a4186e0c6-master.m3u8https://video.igem.org/videos/embed/b95JbNTcMXFMPFEwsnmugJ302042022-10-09T11:14:43.999ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/42AokbN5mWD5ZBZRFhd8hLhttps://video.igem.org/lazy-static/thumbnails/2f6c824c-9181-4fb5-bfed-fa6f02244fa1.jpgTec-Chihuahua: IrnaldoCentrifugeTest (2022)This is the test of our centrifuge running E.coli for 10 minutes at full speed.https://static.igem.org/peertube/streaming-playlists/hls/188459ab-22ce-4eed-85d2-7fc97513c3c8/9a917c4f-0ba3-4dc5-b5a9-bf533f013b29-master.m3u8https://video.igem.org/videos/embed/42AokbN5mWD5ZBZRFhd8hL840132022-10-09T10:27:43.908ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8J99Hv2geLguwTveBRN2qohttps://video.igem.org/lazy-static/thumbnails/524a362b-a664-4d13-a655-ad378251d3cb.jpgTec-Chihuahua: LabCentrifugeTest (2022)This is the test of our Lab centrifuge separating E.coli at full speed for 10 minutes.https://static.igem.org/peertube/streaming-playlists/hls/3e923b53-5dc6-484b-bdc4-c8f45f5e838a/b230041c-3a0a-44c2-92cd-8577bd0a1242-master.m3u8https://video.igem.org/videos/embed/8J99Hv2geLguwTveBRN2qo410102022-10-09T10:29:52.588ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4kvEgca2aXdW7vNzfwvKZwhttps://video.igem.org/lazy-static/thumbnails/adddf1d3-76c2-4c8f-8f87-27e869163ea2.jpgThessaloniki_Meta: collabs-vid-1 (2022) [English]Thessaloniki_Meta: collabs-vid-1 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/1b04d377-853e-4ed5-b56b-5cb62455c17c/cd82fbf1-84fd-43b5-ab25-91c727db75c1-master.m3u8https://video.igem.org/videos/embed/4kvEgca2aXdW7vNzfwvKZw31022022-10-09T10:37:45.509ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/u8bQmDqne4d4CjbdLahhDqhttps://video.igem.org/lazy-static/thumbnails/21030fe2-c677-453f-927d-dc7857554d2b.jpgThessaloniki_Meta: collabs-vid-2 (2022) [English]Thessaloniki_Meta: collabs-vid-2 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/e3c0c3f0-86e7-4c5a-b28e-d561ab10144a/078c62fa-94ef-4f58-8c46-b4f47a07fb2a-master.m3u8https://video.igem.org/videos/embed/u8bQmDqne4d4CjbdLahhDq97052022-10-09T10:48:53.500ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2B7MmtoHRpfQ3kBbaz71Wjhttps://video.igem.org/lazy-static/thumbnails/597b7f7e-e56d-49d7-80bc-ce4dbefa7ec2.jpgUZurich: Interview with Marcel Brunner (2022) [German]To complement our human practice research, we interviewed a patient suffering from Inflammatory Bowel Disease. This further shows the local relevance of our project.https://static.igem.org/peertube/streaming-playlists/hls/0d0059a2-5e43-462c-9e26-754749300fee/13f3dd1f-f1fe-4fd5-8b4e-54abb6dcec28-master.m3u8https://video.igem.org/videos/embed/2B7MmtoHRpfQ3kBbaz71Wj9800172022-10-09T11:15:15.129ZinterviewpatientibdYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1yU6imyAiE64Lb8KSARQXUhttps://video.igem.org/lazy-static/thumbnails/f3c51ba1-cdfa-40fe-a687-8a4574a51ac6.jpgUBC-Okanagan Members Reel v1 (2022) [English]A fun reel showcasing all of the members on UBC-Okanagan 2022! This is version 1.https://static.igem.org/peertube/streaming-playlists/hls/0497e730-9078-49c3-a8e9-1b9bcd7166b2/df7b5b9c-4837-49cf-b059-8cca2f91737d-master.m3u8https://video.igem.org/videos/embed/1yU6imyAiE64Lb8KSARQXU20010392022-10-09T10:52:54.576ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wWsSmUvjtfpCreo3VqpYYyhttps://video.igem.org/lazy-static/thumbnails/0a437389-cbd0-4752-b097-536a2a3c2453.jpgINSA_Lyon1: potato_truck (2022)Slow Video of a potato truck with farmer walking Right deserved to youtuber @LOAGRI https://www.youtube.com/c/LOAGRI Permission was given by author Loïc Madre to use freely this video if he was given credit Thank to him!https://static.igem.org/peertube/streaming-playlists/hls/fa8ce1ad-1acc-4cc7-9cb4-7ae2344a2c68/c53d5e50-0e30-44da-b1a2-243f56530a06-master.m3u8https://video.igem.org/videos/embed/wWsSmUvjtfpCreo3VqpYYy7022462022-10-09T11:08:00.209ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1EYv28wcvhpzNAtHoeysGchttps://video.igem.org/lazy-static/thumbnails/45f5e5a7-b544-4f18-9b5f-1005b7c3c773.jpgFreiburg: Interview PijushGupta - Insights into our project and iGEM (2022) [German]We had an interview session talking with Piyush Gupta about our project, iGEM in general and science communication & research integrity. Piyush, as part of our university and science communicator on social media, was especially interested in what iGEM offers young budding scientists, what we learned from it and speaking about how one could also participate. In this long but super interesting talk, we also spoke about our project and the field of research integrity and science communication, how they are connected and why they are important for us and also society in general.https://static.igem.org/peertube/streaming-playlists/hls/05711534-49ad-41c3-a288-f58b82e70f13/504751d0-6d7f-4265-a6dc-cb29cc43dac6-master.m3u8https://video.igem.org/videos/embed/1EYv28wcvhpzNAtHoeysGc26440112022-10-09T11:52:43.242ZinterviewchAMBERscience communicationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6ZyS2eHxaLB7xQJ9KJdiVDhttps://video.igem.org/lazy-static/thumbnails/44e001bb-5a03-4b4d-9185-f65068e3bdf2.jpgGuangxi-U-China: 10 s-Highlight clip (2022) [English]Highlight clip for IGEM wiki. wiki link:https://2022.igem.wiki/guangxi-u-chinahttps://static.igem.org/peertube/streaming-playlists/hls/30875723-89cb-4714-813f-0a65d4821ceb/3147bf15-c874-49d0-a20d-a2b557d0b14f-master.m3u8https://video.igem.org/videos/embed/6ZyS2eHxaLB7xQJ9KJdiVD10022022-10-09T12:22:19.819ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nMZzB7Rg1punHdyTjPejpfhttps://video.igem.org/lazy-static/thumbnails/1abae8de-109d-416c-9a3f-b75009d0f917.jpgGuangxi-U-China: the nucleic acid amplification process (2022)Video showing the nucleic acid amplification process for use on the IGEM wiki. Wiki link:https://2022.igem.wiki/guangxi-u-chinahttps://static.igem.org/peertube/streaming-playlists/hls/b07bddb7-578b-45e1-83df-954d81dab9c4/61e27113-5eed-4726-a5ca-d5b4d0476778-master.m3u8https://video.igem.org/videos/embed/nMZzB7Rg1punHdyTjPejpf160222022-10-09T12:26:12.588ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mres4Xyyk2vYyQnMeCWghbhttps://video.igem.org/lazy-static/thumbnails/ad55fbf4-a6bb-4891-838b-10242eb23056.jpgGuangxi-U-China: School introductory video (2022) [English]School introductory video for the IGEM wiki. Wiki link:https://2022.igem.wiki/guangxi-u-chinahttps://static.igem.org/peertube/streaming-playlists/hls/a57ca7ed-9b2e-4bab-9d13-b45799fa1a56/07eb2e43-b413-404a-8e9b-d76222a44d0b-master.m3u8https://video.igem.org/videos/embed/mres4Xyyk2vYyQnMeCWghb790282022-10-09T12:29:02.508ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8sLvCri8PuTqKmmFWhr2Zkhttps://video.igem.org/lazy-static/thumbnails/f82d255a-b93e-43cf-8f31-6fe78f1460b7.jpgGuangxi-U-China: Background music for the IGEM wiki (2022)Background music for the IGEM wiki. Wiki link:https://2022.igem.wiki/guangxi-u-chinahttps://static.igem.org/peertube/streaming-playlists/hls/3c6cbd4a-4101-4a66-a8a2-08b9e4029889/2f447164-452f-45e6-8abd-1a3704f4ba67-master.m3u8https://video.igem.org/videos/embed/8sLvCri8PuTqKmmFWhr2Zk111022022-10-09T12:30:38.123ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vXVDjxhirZ79x1wGDHMADthttps://video.igem.org/lazy-static/thumbnails/49ca70fd-9403-415c-9649-529d56a6e83c.jpgGuangxi-U-China: PCR amplification (2022)The video about the present of PCR amplification. Our wiki :https://2022.igem.wiki/guangxi-u-china https://static.igem.org/peertube/streaming-playlists/hls/f2a7fcc8-929c-4069-a67d-72714bef72fd/b6d6c0c7-0d1b-4247-92c2-421cabd84b0e-master.m3u8https://video.igem.org/videos/embed/vXVDjxhirZ79x1wGDHMADt16012022-10-09T12:38:35.960ZGuangxi-U-ChinaYESiGEM 2022 TeamsNOhttps://video.igem.org/w/atzDULF9VuG8Xifni12fd4https://video.igem.org/lazy-static/thumbnails/a153dd36-8792-45ad-98bc-b2c8e8364bb1.jpgFudan: ICII: Into China Into iGEM (2022) [English]ICII (Into China Into iGEM) is an annual educational event hosted by NAU-CHINA and has been successfully held twice since 2021. In 2022, it will be co-hosted by BIT-China team and ZJU-China team, with the participation of 12 teams from famous universities in China. We hope to make a greater impact on synthetic biology through the joint participation of multiple teams throughout the country. We hope to reach every city, so as to realize the common wish of project science popularization and iGEM event promotion; and to present the new technology and new ideas in a more concrete form, so that people can easily understand and have a deeper impression. At the same time, we hope to let the iGEM world see the culture of different cities in China, the power of science and technology in China, and the enthusiasm of Chinese people for biotechnology development through the final video so that the world can know China further through ICII. These presentations are like seeds being sowed. We plant seeds for children and youth to improve society and change the world with synthetic biology. Together, we look forward to their germination and growth tomorrow. This year, the Fudan team brought the science of the industrial view of the skincare economy to the audience. The main content we shared covered: the definition of skincare products, the composition of skincare products, the production model of skincare ingredients, the survival of celebrity skincare products, and how we choose skincare products. https://static.igem.org/peertube/streaming-playlists/hls/4cbc11cb-5382-4208-a611-b8979006bdbb/6f80c615-21e0-40a9-8e6c-3ceee4f1ed40-master.m3u8https://video.igem.org/videos/embed/atzDULF9VuG8Xifni12fd43920152022-10-09T12:48:12.486ZFudanICIIYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8XDG6gvixDhYLcn2wWkh5Shttps://video.igem.org/lazy-static/thumbnails/98f67f54-a2a7-4668-896f-b39c637265e8.jpgGuangxi-U-China: highlight clip (2022)The 10s highlight of our team. Our wiki: https://2022.igem.wiki/guangxi-u-chinahttps://static.igem.org/peertube/streaming-playlists/hls/40751b23-7b0f-4603-9001-898119aa0432/a2f04495-8ea1-4d2e-885c-645e2b976ed3-master.m3u8https://video.igem.org/videos/embed/8XDG6gvixDhYLcn2wWkh5S10012022-10-09T12:42:30.593ZhighlightGuangxi-U-ChinaYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dCWm3xSukduKj5uE3hU1rChttps://video.igem.org/lazy-static/thumbnails/f94a90f0-d87c-468f-97a0-12a7effbab39.jpgGuangxi-U-China: home bgm (2022)The music in our home page of wiki. Our wiki: https://2022.igem.wiki/guangxi-u-chinahttps://static.igem.org/peertube/streaming-playlists/hls/6655ee69-7900-4108-9792-7534486309ae/85ff97d6-a992-434e-8b55-8c9a1360fbb4-master.m3u8https://video.igem.org/videos/embed/dCWm3xSukduKj5uE3hU1rC111012022-10-09T12:47:43.249ZGuangxi-U-Chinabgmmp3YESiGEM 2022 TeamsNOhttps://video.igem.org/w/uXZVFzB1whwkZygPPjzLC5https://video.igem.org/lazy-static/thumbnails/6b5cc624-bc9a-428d-ac76-9fc4e8f902cb.jpgUESTC-BioTech A song called those algae (2022) [Chinese]UESTC-BioTech A song called those algae (2022) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/ea917cdb-7401-46b6-9c80-4043e025f644/df4377d2-ef61-424c-b6b5-c44f296435e7-master.m3u8https://video.igem.org/videos/embed/uXZVFzB1whwkZygPPjzLC52200392022-10-09T13:05:04.724ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mjCXYhCYp6S3edq3gPHrHuhttps://video.igem.org/lazy-static/thumbnails/4a456794-aafa-47d4-8bdc-8287b3a374d0.jpgNTHU_Taiwan: 1min-promotion (2022) [Chinese]NCHU_Taichung created a YouTube channel that integrated the short project introduction video of iGEM teams in Taiwan. Thanks to this channel, we have not only promoted our project to others but also realized other iGEM Teams’ ideas. NTHU_Taiwan wiki: https://2022.igem.wiki/nthu-taiwan/collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/a490f109-c596-4932-90fa-500bc7e71b22/454a3823-1d71-4ce0-95e3-1ec663adad16-master.m3u8https://video.igem.org/videos/embed/mjCXYhCYp6S3edq3gPHrHu65092022-10-09T13:32:48.411ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aygNMjBT5ddYm7uc6xof5ahttps://video.igem.org/lazy-static/thumbnails/4a48dd98-d687-4f63-8678-320dc3573cc5.jpgTUDelft: System animation (2022) [English]TUDelft: System animation (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/4d63ca2b-a30e-42b8-b743-2d7d102a1229/59bfeba2-ccd5-48b3-b137-56fef8b5c0fd-master.m3u8https://video.igem.org/videos/embed/aygNMjBT5ddYm7uc6xof5a69072022-10-09T13:38:08.424ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1DRHJjeAGdfLD17wD48b3Mhttps://video.igem.org/lazy-static/thumbnails/ee612775-2b74-4ccb-87d6-cd03f775d016.jpgNCKU_Tainan: MerSe Audiobook3 (2022) [English]To share Synbio knowledge with a wider diversity of audiences, NCKU_Tainan recorded audiobooks, which are accessible to visually-impaired people. The contents were based on the latest advance of the Synbio industry. We believed that our effort made more people recognize the limitless potential of Synbio, and grasp a better understanding of the application of Synbio.https://static.igem.org/peertube/streaming-playlists/hls/05492903-35d9-44a5-901b-9975469d5ef1/0c644dad-836c-4c79-a45d-3c0108af3e8a-master.m3u8https://video.igem.org/videos/embed/1DRHJjeAGdfLD17wD48b3M193022022-10-09T13:44:34.626ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jUAEQDH61JBDQuWMU18p6uhttps://video.igem.org/lazy-static/thumbnails/19abf52e-7580-4a3f-be8c-a4dd19e3982b.jpgWilliam_and_Mary: Introduction to Chassis Selection (2022) [English]What is a Chassis: An introduction to Chassis Selection. Video scripted, filmed, and edited by William and Mary iGEM in collaboration with Hopkins iGEM and East Coast BioCrew iGEM. Source: Adams, B. L. (2016). The next generation of synthetic biology chassis: moving synthetic biology from the laboratory to the field. ACS Synthetic Biology, 5(12), 1328-1330.https://static.igem.org/peertube/streaming-playlists/hls/991c89af-f50f-414b-aab1-3e7daa02a352/65e14323-1064-47fe-8215-38107489d38b-master.m3u8https://video.igem.org/videos/embed/jUAEQDH61JBDQuWMU18p6u3600362022-10-09T14:23:39.986ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8SRyMZf5CPAYvmtEZxCnbBhttps://video.igem.org/lazy-static/thumbnails/b4109942-fde9-4c90-84b0-377e2f789208.jpgStockholm: promutor logo (2022)Animation for Promutor logo https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/3fc9b472-fc9c-4c45-9b25-de52e74ed88b/128310fd-2e18-4d5b-8ac1-6ce0f6dd35ca-master.m3u8https://video.igem.org/videos/embed/8SRyMZf5CPAYvmtEZxCnbB4032022-10-09T14:31:55.007ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eeq3iKCUTUneHd2DxbBRDehttps://video.igem.org/lazy-static/thumbnails/0b03d8ba-8fa1-4f3a-af6e-29ae3c0b4950.jpgUFMG_UFV_Brazil: MeetUp LATAM (2022) [English]Day one: Team presentation about their projects for iGEM competition 2022. Wiki link: https://2022.igem.wiki/ufmg-ufv-brazil/ 13h - Opening 13:05: Giulio Braatz: Ambassador Head for Latin America 13:20 Team 1: UFMG_UFV_Brazil 13:35 Team 2: TecCCM 13:50 Team 3: Unicamp_Brazil 14:05 Team 4: ITESO_Guadalajara 14:20h Team 5: UAM 14:35 Team 6: TecCEM 14:50 Team 7: USP-EEL-Brazil 15:05 Team 8: Costa_Rica_Chassei 15:20h Team 9: Biotech Ec. 15:35h Closurehttps://static.igem.org/peertube/streaming-playlists/hls/6b26495f-d100-4cd1-8a56-64d4b1b0048b/3556594b-2e6f-4518-8b22-268d8f56a08d-master.m3u8https://video.igem.org/videos/embed/eeq3iKCUTUneHd2DxbBRDe8088082022-10-09T15:44:32.894ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2bew1fy9mNTJry1YZtySyMhttps://video.igem.org/lazy-static/thumbnails/74aa7360-8c04-419f-bc75-217e827ccaab.jpgREC-CHENNAI: MBBR (2022)Video demonstrating the project apparatus https://2022.igem.wiki/rec-chennai/https://static.igem.org/peertube/streaming-playlists/hls/0986e81d-9e45-4ce9-a7e6-6aa0e0b2b6c5/c45a87f1-9587-4f65-9b93-cdeebc5ceeb8-master.m3u8https://video.igem.org/videos/embed/2bew1fy9mNTJry1YZtySyM30032022-10-09T14:39:11.790ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4oX22Mg4ZqRYwppJAN6EiNhttps://video.igem.org/lazy-static/thumbnails/a1303ba7-f1f1-4d14-b415-f231b192256f.jpgWaseda_Tokyo: What is iGEM ? at Rikoten, school festival (2022) [English]About synbio and iGEM competition for the general public. wiki link: https://uploads.igem.org/teams/4158/wiki/communicationhttps://static.igem.org/peertube/streaming-playlists/hls/1b7faf50-be6b-4a6c-a76c-0bc68af95548/2671d453-33c4-4044-b936-69c5e494dc6e-master.m3u8https://video.igem.org/videos/embed/4oX22Mg4ZqRYwppJAN6EiN596022022-10-09T15:01:02.808ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cLUVPwyMdEPWBDkygPXhZ6https://video.igem.org/lazy-static/thumbnails/6bb53c37-0f80-48f2-a330-7959c4b84c86.jpgWaseda_Tokyo: Students playing Bio Puzzle Game we designed (2022)Elementary school students are playing the biological puzzle game we designed wiki link: https://uploads.igem.org/teams/4158/wiki/communicationhttps://static.igem.org/peertube/streaming-playlists/hls/5f59de7f-522c-4ac6-a2d7-154a36d1fa97/231715b1-69c5-4292-b258-c1d109655b25-master.m3u8https://video.igem.org/videos/embed/cLUVPwyMdEPWBDkygPXhZ6130112022-10-09T15:01:11.412ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tbsJcZ7D9ZBsCjy4zU7z45https://video.igem.org/lazy-static/thumbnails/e81defda-40ef-4f76-b054-630836dc6ea3.jpgREC-CHENNAI: petri dish (2022)Video demonstrating the project apparatus https://2022.igem.wiki/rec-chennai/https://static.igem.org/peertube/streaming-playlists/hls/dc1ca72e-5021-4c5f-be71-cf40611acce6/f36064f5-fb52-4455-b018-5aae23a8a745-master.m3u8https://video.igem.org/videos/embed/tbsJcZ7D9ZBsCjy4zU7z4536022022-10-09T15:51:03.490ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9KkPsuUeEDdZQbAymb3azQhttps://video.igem.org/lazy-static/thumbnails/79858754-722e-4d0a-a433-58d4a9c5c5ff.jpgREC-CHENNAI: reactor (2022)Video demonstrating the project apparatus https://2022.igem.wiki/rec-chennai/https://static.igem.org/peertube/streaming-playlists/hls/46d64e07-92ea-4b14-892b-0b5bed61b05e/0242d091-6973-4b75-90da-7d03398e538a-master.m3u8https://video.igem.org/videos/embed/9KkPsuUeEDdZQbAymb3azQ7012022-10-09T15:52:04.459ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3pPrhWxyveZZFPx2SU3pePhttps://video.igem.org/lazy-static/thumbnails/9cdb0410-5592-45cc-b635-6621d65184b7.jpgREC-CHENNAI: tank (2022)Video demonstrating the project apparatus https://2022.igem.wiki/rec-chennai/https://static.igem.org/peertube/streaming-playlists/hls/13859e17-8ee5-4736-a1ac-ac44396d92ed/d2a75f40-962f-499d-bde3-0203cc76988b-master.m3u8https://video.igem.org/videos/embed/3pPrhWxyveZZFPx2SU3peP3022022-10-09T15:52:27.113ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ojz6BFK3DsEP8a4wt2HFdVhttps://video.igem.org/lazy-static/thumbnails/e42ecba6-5ec4-460f-9bd9-622cead5be29.jpgMontpellier: game_video_1(2022) [English]First video of the game dedicated to children. (English version)https://static.igem.org/peertube/streaming-playlists/hls/b4c0d5c3-a64f-4c2c-ba24-02b16208aec1/7f183448-f235-4af9-960d-91f67b2fa217-master.m3u8https://video.igem.org/videos/embed/ojz6BFK3DsEP8a4wt2HFdV100162022-10-09T16:10:01.258ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/m4GJH2rfbhYeuwpcBPKkBshttps://video.igem.org/lazy-static/thumbnails/1946828c-7993-439b-be4e-3f47e47d556d.jpgMontpellier: game_video_2 (2022) [English]Second video of the game dedicated to children. (English version)https://static.igem.org/peertube/streaming-playlists/hls/a27b1bf2-5fa5-4e8a-b7b7-836cb702a17c/64196d67-7491-40ca-8a5c-f53e690e3554-master.m3u8https://video.igem.org/videos/embed/m4GJH2rfbhYeuwpcBPKkBs100122022-10-09T16:11:04.319ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3xT3zQdmyBPyn2THArcvhLhttps://video.igem.org/lazy-static/thumbnails/7e49c43a-a0c5-4024-be24-2a368fb77c31.jpgMontpellier: game_video_3 (2022) [English]Third video of the game dedicated to children. (English version)https://static.igem.org/peertube/streaming-playlists/hls/14a5caa0-15d9-47ec-a890-8b6c11740928/df28c4fc-5b54-4a3b-a2a4-28f5011dcf56-master.m3u8https://video.igem.org/videos/embed/3xT3zQdmyBPyn2THArcvhL157082022-10-09T16:16:27.730ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/i44eLTCryZowoP9HmaQmiahttps://video.igem.org/lazy-static/thumbnails/abc75551-2446-4f26-a71c-7db5016f0066.jpgMontpellier: game_video_4 (2022) [English]Fourth video of the game dedicated to children. (English version) https://static.igem.org/peertube/streaming-playlists/hls/8a18956d-4e24-4662-aa3d-524d20282f83/74354786-6552-449d-9556-e70ec9bc7ec1-master.m3u8https://video.igem.org/videos/embed/i44eLTCryZowoP9HmaQmia11082022-10-09T16:16:39.209ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/856d45iwgHsf8iDc7tUfcXhttps://video.igem.org/lazy-static/thumbnails/c82a5e8a-d414-45f8-8de3-7602a9a71136.jpgMontpellier: game_video_5 (2022) [English]5th video of the game dedicated to children. (English version) https://static.igem.org/peertube/streaming-playlists/hls/394227b6-6918-499f-8952-235b8014557d/471b37ec-9f71-4809-8cd7-5e4013f34988-master.m3u8https://video.igem.org/videos/embed/856d45iwgHsf8iDc7tUfcX16052022-10-09T16:16:52.102ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pTDuHq89Am2iiAVVdWUwUNhttps://video.igem.org/lazy-static/thumbnails/eaff9466-87c3-4e4a-933b-94e5c7f5e1e8.jpgMontpellier: game_video_8 (2022) [English]8th video of the game dedicated to children. (English version) https://static.igem.org/peertube/streaming-playlists/hls/c1783a86-0925-4a81-a0fe-e2f7281d2aee/cbed987b-c517-4c7a-95c9-d6d2e4b1eafb-master.m3u8https://video.igem.org/videos/embed/pTDuHq89Am2iiAVVdWUwUN24032022-10-09T16:17:59.013ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tCHVtMHvRrsBqNUZaNqRN8https://video.igem.org/lazy-static/thumbnails/1ed8b4da-faad-4931-bb7f-14b823c36dfa.jpgMontpellier: game_video_9 (2022) [English]9th video of the game dedicated to children. (English version) https://static.igem.org/peertube/streaming-playlists/hls/dfc75adc-3e8c-4eff-9fb9-711935f7edd7/02b47927-fff1-4886-acf1-7a3332ea3bf6-master.m3u8https://video.igem.org/videos/embed/tCHVtMHvRrsBqNUZaNqRN827032022-10-09T16:18:19.117ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jMwtU2aigQcxpsb8w4jT4Qhttps://video.igem.org/lazy-static/thumbnails/d792e020-668c-46a9-8504-8e081974e3c4.jpgNCKU_Tainan: Audiobook 1 (2022) [English]NCKU_Tainan: Audiobook 1 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/981fc006-ab20-4651-ad8c-3d0c87603e8a/58975d06-03f8-4bef-a26a-c2922817b222-master.m3u8https://video.igem.org/videos/embed/jMwtU2aigQcxpsb8w4jT4Q543002022-10-09T16:27:22.043ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/c1NFsdEQGqLgRV98UvaASDhttps://video.igem.org/lazy-static/thumbnails/2cddec83-8e1a-4046-9663-520b659bb399.jpgUESTC-BioTech GMOs regulation in France, China, and America. (2022) [English]UESTC-BioTech GMOs regulation in France, China, and America. (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/59314aff-6c99-48ba-b4dc-7f6b62b11fb9/ac6041b1-eda4-44d5-8e1d-dc41ad0144a4-master.m3u8https://video.igem.org/videos/embed/c1NFsdEQGqLgRV98UvaASD4400452022-10-09T16:50:44.500ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/44mjG8cR6VcW5k3qqQNMEhhttps://video.igem.org/lazy-static/thumbnails/3fb0acbf-4605-473f-98bf-c5e9ddc3fe80.jpgThessaly: Mycelium Platform Construction Time-lapse video (2022) [English]A time-lapse video of our dry lab team making the mycelium floating platform.https://static.igem.org/peertube/streaming-playlists/hls/18c32bdc-a141-40d2-bc24-2f24d3b80b30/8957ebf0-0bc8-465c-bed8-053c161fa5c5-master.m3u8https://video.igem.org/videos/embed/44mjG8cR6VcW5k3qqQNMEh990492022-10-09T17:09:35.823ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nWE98tQ12DdWMQrJV5qBckhttps://video.igem.org/lazy-static/thumbnails/b2ce251a-d9b8-4d5b-a0ab-5e8b5ceddf87.jpgINSA_Lyon1: team members presentation (2022)Team members presentation video! Credits: Editing Paul Legrand Music Brooklyn 99https://static.igem.org/peertube/streaming-playlists/hls/b1b19484-6400-4e21-a6e6-f64c029f079d/39f6cbe4-7b4d-40f5-ab46-a997c39ce7d5-master.m3u8https://video.igem.org/videos/embed/nWE98tQ12DdWMQrJV5qBck6903702022-10-09T17:23:52.981ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ejYpgrx95rHFDgiUSPEV7yhttps://video.igem.org/lazy-static/thumbnails/fa8bcd79-372c-4420-b731-056f6377b293.jpgMichiganState: Kristin Poley Meeting (2022) [English]Our Team met with Kristin Poley, the research manager of the Corn Marketing Program of Michigan, to guide our project in a way that would make farmers more likely to accept it.https://static.igem.org/peertube/streaming-playlists/hls/6becf2e9-b102-4782-8078-24a209653790/b30dfa1c-ea0a-4c6b-9906-c59bd1736ebb-master.m3u8https://video.igem.org/videos/embed/ejYpgrx95rHFDgiUSPEV7y65072022-10-09T17:28:10.173ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/b1q8jTFWR83MvwgYXcwUjXhttps://video.igem.org/lazy-static/thumbnails/20c6a47d-49f0-45b8-aa57-2eea78d3fe56.jpgMichiganState: Mark Forbush Meeting (2022) [English]Highlights from our meeting with Mark Forbush, MSU Extension Educator and state advisor to the Michigan FFA. MSU Extention is the land grant program in which MSU offers its research to the farmers who work with the university,https://static.igem.org/peertube/streaming-playlists/hls/510a4145-4f7e-425a-a257-f01fe97034db/9595b445-7539-4c92-bc7c-8019323c5b03-master.m3u8https://video.igem.org/videos/embed/b1q8jTFWR83MvwgYXcwUjX70032022-10-09T17:34:56.262ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vKNsmjAGnJQNwyPx9GN4NPhttps://video.igem.org/lazy-static/thumbnails/ded45162-c131-4db5-a1dc-551c22b3f615.jpgUBC-Okanagan: roster-autoplay (2022) [English]Autoplay video showing members of the UBC Okanagan iGEM team.https://static.igem.org/peertube/streaming-playlists/hls/f0f6a1b9-ac6b-49d5-864d-f9708908eff7/522ca0cc-2d83-44eb-adbf-aaed6d2b597b-master.m3u8https://video.igem.org/videos/embed/vKNsmjAGnJQNwyPx9GN4NP22042022-10-09T18:54:02.216ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kojpUU9aMqv9dihHebcrjchttps://video.igem.org/lazy-static/thumbnails/ce640890-613c-4aeb-8235-eebd75e57bfc.jpgMontpellier: presentation_video (2022) [English]Presentation video. What is iGEM? what is our project? This video was shared with the general public and with scientists. https://static.igem.org/peertube/streaming-playlists/hls/9cfb582d-c6ec-45e0-a162-4757cbb7415b/bb3454fc-a6d9-450c-b30b-b94a8b86e115-master.m3u8https://video.igem.org/videos/embed/kojpUU9aMqv9dihHebcrjc1270222022-10-09T19:10:36.303ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/irQa22mxCc82DVXGEVZVYXhttps://video.igem.org/lazy-static/thumbnails/573faa45-c045-4a12-b78c-772b527cde80.jpgINSA_Lyon1: Timelapse endive (2022)Timelapse on 24h of the propagation of D.solani in endives.https://static.igem.org/peertube/streaming-playlists/hls/8d46a0da-acd5-468e-a50b-e2485b8a80d3/0f383a43-185e-4722-9a2f-e9605e0e4334-master.m3u8https://video.igem.org/videos/embed/irQa22mxCc82DVXGEVZVYX802972022-10-09T19:42:25.833ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1AThNs872jqYx1vSC8ZY1khttps://video.igem.org/lazy-static/thumbnails/6e3914e8-7432-4191-8ecd-8ffa624cf0db.jpgINSA_Lyon1: Timelapse Petri dish (2022)Timelapse propagation of E.coli on right and D.solani on lefthttps://static.igem.org/peertube/streaming-playlists/hls/04dee585-1b36-4da7-a3d8-47f5f4efc7cb/fb5be36a-fd44-4ad1-8b71-beeac65541dc-master.m3u8https://video.igem.org/videos/embed/1AThNs872jqYx1vSC8ZY1k1101762022-10-09T19:47:32.537ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nV4fnYbKpGwoeYcRvP9hWyhttps://video.igem.org/lazy-static/thumbnails/5e2ad5cd-337b-4451-bded-e36943a2200f.jpgNU_Kazakhstan: Analysis Software Demonstration (2022) [English]Explanation and demonstration of the optic fiber sensor readings analysis software. WIki: https://2022.igem.wiki/nu-kazakhstan/ https://static.igem.org/peertube/streaming-playlists/hls/b1785550-e04d-434a-b595-68b5b6c200ac/46cfa5d2-a18c-427a-bf2a-486343af63b0-master.m3u8https://video.igem.org/videos/embed/nV4fnYbKpGwoeYcRvP9hWy433012022-10-09T20:24:17.992ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4EcfeKBsKf5pf2uCUyxbvXhttps://video.igem.org/lazy-static/thumbnails/a21b8725-accd-4246-980d-af4bc040cd36.jpgFudan: iGEMer as the host to kick off a grand dialogue between FDU and MoCA Shanghai (2022) [Chin...To encourage dialogue between art and campus, we invited the executive curator of MoCA Shanghai and some artists to share their insight into art,technology and our daily life. https://static.igem.org/peertube/streaming-playlists/hls/1da09c08-8bde-45c4-bf73-cc0d8df6cb89/2f3fe732-3dd0-4313-a906-1bd5f908853c-master.m3u8https://video.igem.org/videos/embed/4EcfeKBsKf5pf2uCUyxbvX380122022-10-09T21:22:17.747ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pW7d9yMH7eoFAkPoLzkPKbhttps://video.igem.org/lazy-static/thumbnails/3241de20-be29-479b-b8d5-23f90870dc43.jpgSUNY_Oneonta: Spanish Promotional Video (2022) [Spanish]This is a Spanish-language version of the promotional video for the 2022 SUNY_Oneonta iGEM project, CyanoSpectre. https://2022.igem.wiki/suny-oneonta/index.html https://static.igem.org/peertube/streaming-playlists/hls/c1d02df1-6771-42c4-8018-f65fc2a504ec/73bf318c-e306-4f34-aaa7-44af1621910c-master.m3u8https://video.igem.org/videos/embed/pW7d9yMH7eoFAkPoLzkPKb1200172022-10-09T21:10:29.154Zcyanophagebacteriophagecyanobacterial engineeringspanishYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bDPq41cwvvg2BdP4cSEaBMhttps://video.igem.org/lazy-static/thumbnails/916c22aa-e069-450e-b86f-c5a0dd14de51.jpgUBC-Okanagan: lifebulb room 2_1080p_High_Quality (2022) [English]A short video demonstrating potential uses for LifeBulb in a residential setting.https://static.igem.org/peertube/streaming-playlists/hls/5643205d-9ae5-48d0-b42b-9cd21f60a18f/3080f413-33c0-464c-ab99-110538bdfab1-master.m3u8https://video.igem.org/videos/embed/bDPq41cwvvg2BdP4cSEaBM804442022-10-09T21:13:55.442ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hVrtATGdU6GFo8G6zt2e1Nhttps://video.igem.org/lazy-static/thumbnails/73dc57b3-8f43-4541-a4c7-ce75881b99ac.jpgSUNY_Oneonta: 3D Virus Model for Museum Exhibit (2022)This video shows the original assembly plans for a 3D printed model of a bacteriophage, which is intended to be part of a museum exhibit developed by the 2022 SUNY_Oneonta iGEM team. https://2022.igem.wiki/suny-oneonta/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/890856a4-4a50-423f-a974-c7ceda4c21ba/bbe850af-8373-495f-adbe-338fbfa094c7-master.m3u8https://video.igem.org/videos/embed/hVrtATGdU6GFo8G6zt2e1N180172022-10-09T21:16:15.970ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ha8msCdSrCGK1XTreiH5xGhttps://video.igem.org/lazy-static/thumbnails/2a3caf26-301c-4e47-a402-8b6dd747c4bb.jpgSorbonne_U_Paris: NAWI TV Episode 1 : Genetic Insulators (2022) [English]A big part of our project is the insulator system we’re trying to adapt to Chlamydomonas reinhardtii. Gene expression is in reality controlled by much more than the 1 dimensional sequence of its promoters, RBSs, terminators and regulators. In this first episode of NAWI TV, we take a look at what an insulator sequence is, how they interact with proteins and display their insulatory function, and finally how they will be of great aid, not only in our project, but for synthetic biology in general. Credits: * Editor and designer: Elio EL GHOUL * Presenter: Luca DONATI Our wiki link: https://2022.igem.wiki/sorbonne-u-paris/https://static.igem.org/peertube/streaming-playlists/hls/82d8719b-7211-4600-8352-b00ace9ffa16/ded839d2-2b4a-4a9a-b884-d3dcc61d1fc5-master.m3u8https://video.igem.org/videos/embed/ha8msCdSrCGK1XTreiH5xG183042022-10-09T21:28:11.064ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rE3fc6r7acbn6n4ND793Fwhttps://video.igem.org/lazy-static/thumbnails/6a3b1e08-5f6f-441a-9516-a829090e0440.jpgBGU_Israel: asensa-presentation (2022) [English]We are the IGEM group at Ben Gurion University in Israel. This year, our university supports and sends a team to participate in the competition. IGEM is an international competition of synthetic biology. We are a team of seven biology students. Our product is full of potential and we hope it will help others in the future. We invite you to explore the site and learn more about our project and about ourselveshttps://static.igem.org/peertube/streaming-playlists/hls/cfc41cf3-8a24-460d-8274-d4df9a948cfc/7cc21c3b-51b7-4212-bd3a-d3306ee6a9a8-master.m3u8https://video.igem.org/videos/embed/rE3fc6r7acbn6n4ND793Fw1110402022-10-09T21:40:18.475ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fCPEikKah7AcrZ3EFQP2gZhttps://video.igem.org/lazy-static/thumbnails/3bf94500-ce64-40fe-8e41-e46e6cde1e03.jpgBGU_Israel: maple-syrup-challenge (2022) [English]The Tik Tok challenge. We posted a challenge on social media to raise awareness of MSUD. With this platform, a wider target audience can be reached all over the world and therefore the information can reach a broader range of populations. we posted the challenge and explained about the disease in the description of it . We've reached 600 views in just 2 hours! and therefore we achieved our goal to educate about MSUD.https://static.igem.org/peertube/streaming-playlists/hls/768416b3-bbea-4af2-a862-6e0280d6ddfb/cfd69565-03a8-4fd3-8659-57c274f59d41-master.m3u8https://video.igem.org/videos/embed/fCPEikKah7AcrZ3EFQP2gZ390102022-10-09T22:07:59.045ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1i9DvB67SBDEbm4RJ5E8rghttps://video.igem.org/lazy-static/thumbnails/a4737a4e-2c93-4835-82db-46f5b1497777.jpgStockholm: Collab Chalmers (2022)Animation for Chalmers Collab https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/0264f90b-3bb1-480d-82d8-1da8a1663de5/755c50e4-d5ab-4de0-9792-4cf936c07b0e-master.m3u8https://video.igem.org/videos/embed/1i9DvB67SBDEbm4RJ5E8rg4022022-10-09T22:08:30.181ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ksg3sqaWdcdi6UNCtALPK6https://video.igem.org/lazy-static/thumbnails/eed40fba-b6e4-44f5-a76c-21f7f80cde73.jpgStockholm: Antibody Homepage (2022)Antibody Homepage https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/9d883e23-7378-4eca-b372-e572fe37243f/e4284c24-96a4-44ee-aa75-85d1a24e1afb-master.m3u8https://video.igem.org/videos/embed/ksg3sqaWdcdi6UNCtALPK69012022-10-09T22:09:31.517ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wU3buJsgAQAdJrvxuWCUyphttps://video.igem.org/lazy-static/thumbnails/264a387b-fcc8-430b-800c-a0db205208a8.jpgSorbonne_U_Paris: NAWI TV Episode 2 : Bioreactors (2022) [English]In this second episode of NAWI TV, we take a look at bioreactors: a crucial element in our plan to scale up production to levels consistent with the project’s current scope. We quickly redescribe the ideals behind NAWI, and follow-up with how it would be grown. Detailing the parameters of a classical bioreactor, we study how these could be fine-tuned for our particular strain of Chlamydomonas reinhardtii. Finally, we entertain the idea of combining these novel production methods with more classic agricultural standards, in order to create a hybrid growth environment more tailored towards large-scale culture. Credits: * Editor and designer: Elio EL GHOUL * Presenter: Luca DONATI Our wiki link : https://2022.igem.wiki/sorbonne-u-paris/https://static.igem.org/peertube/streaming-playlists/hls/fa362e0d-fae0-4590-9c98-ddb234b9ee67/37443ef6-ee5b-44a5-afeb-9a56d5d7a0a3-master.m3u8https://video.igem.org/videos/embed/wU3buJsgAQAdJrvxuWCUyp214042022-10-09T22:09:29.095ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fG5yarvqkDisK2E3CMNP9ghttps://video.igem.org/lazy-static/thumbnails/37fc70e0-cb09-427d-913b-9e9554703855.jpgSorbonne_U_Paris: NAWI Logo Introduction (2022)Animated molecules that introduce our logo. Our wiki link: https://2022.igem.wiki/sorbonne-u-paris/https://static.igem.org/peertube/streaming-playlists/hls/76f87fb5-de49-4a6a-89ae-6cf2034c0f7b/c1ecd8aa-9c2c-44c9-8427-0f321e914d47-master.m3u8https://video.igem.org/videos/embed/fG5yarvqkDisK2E3CMNP9g80132022-10-09T22:09:34.120ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/c84uo3GLBZDpxhso564Zq3https://video.igem.org/lazy-static/thumbnails/7488d922-c417-4a3e-98ba-a4310d249899.jpgToulouse_INSA-UPS: 3D plans of DAISY Laboratory (2022) (English)planshttps://static.igem.org/peertube/streaming-playlists/hls/5a10e1cb-bc0f-42ab-bb70-fde1caea7d3e/48a3cb9a-8d9c-4512-ab6d-00b83c620ea8-master.m3u8https://video.igem.org/videos/embed/c84uo3GLBZDpxhso564Zq31902832022-10-09T22:15:15.498ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/amjG9TaNgsGgePxKQ5wGPkhttps://video.igem.org/lazy-static/thumbnails/4e230da1-eac5-476f-9c1e-d3847385ed40.jpgSorbonne_U_Paris: NAWI TV Episode 3 : GMOs regulation in France, China, and America (2022) [English]In an effort to study the various GMO legislations present around the world, we asked teams from around the world, UESTC-BioTech from China and USAFA from the USA, to describe the context of GMO legislation in their respective countries. In this third episode of NAWI TV, various themes emerged, like: what does my country consider a GMO? How does my country fight against illegal uses of GMOs? And how can the public opinion against GM foods be described? Credits: * Editor and designer: Elio EL GHOUL * 1st presenter: Elio EL GHOUL (iGEM Sorbonne_U_Paris) * 2nd presenter: Luca DONATI (iGEM Sorbonne_U_Paris) * 3rd presenter: Nancy WANG (IGEM UESTC_BioTech) * 4th presenter: Brandon GADEKEN (IGEM USAFA) Our wiki link: https://2022.igem.wiki/sorbonne-u-paris/ https://static.igem.org/peertube/streaming-playlists/hls/4bb8a493-8b01-4178-b970-7f10b148da89/e656a958-a29f-4380-a979-db0dad763950-master.m3u8https://video.igem.org/videos/embed/amjG9TaNgsGgePxKQ5wGPk4400172022-10-09T22:36:39.197ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1bmAnvS71tNAXw1ZcbgBZThttps://video.igem.org/lazy-static/thumbnails/a5a3529d-abf4-4652-bb5d-dfa878c16469.jpgStockholm: Collab Level Up (2022)Animation for Collab Level Up https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/017220db-08ff-4cd9-bbae-8d2a19455221/0eaf4c7e-2df1-4bfa-9ced-c4231fd720c7-master.m3u8https://video.igem.org/videos/embed/1bmAnvS71tNAXw1ZcbgBZT4022022-10-09T22:28:06.136ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5NxANjkzg8dfyNRpzJJtbdhttps://video.igem.org/lazy-static/thumbnails/85ad6b6a-bf97-4394-b3a2-7516482bac80.jpgStockholm: Collab SynBio (2022)Animation for Collab Syn Bio https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/26e43e03-366e-44c8-84dd-1cf5d87d662c/84102a65-6bba-4c8a-a29a-201cf4d9f3a9-master.m3u8https://video.igem.org/videos/embed/5NxANjkzg8dfyNRpzJJtbd4022022-10-09T22:28:59.766ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3H1iZen1Kp9EXxYByQThnGhttps://video.igem.org/lazy-static/thumbnails/72198ece-3e31-4c59-be3d-2d0a1c9b903d.jpgStockholm: Collab Zurich (2022)Animation for Collab Zurich https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/15ebf687-8be8-4a16-8e32-1c7588eb77e2/815ad2df-a1c1-49b4-bd16-022cb52b99f5-master.m3u8https://video.igem.org/videos/embed/3H1iZen1Kp9EXxYByQThnG4012022-10-09T22:29:52.493ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/gPz2zFLViCuTtSMmojyGBehttps://video.igem.org/lazy-static/thumbnails/39b71ded-e35e-4da4-bada-18995a3c0440.jpgStockholm: Dropdown (2022)Animation for dropdown on homepage https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/801d640f-5421-4d90-a0e0-3359264b92fb/d1f957a0-1bb7-4674-87f3-5929fa2388a8-master.m3u8https://video.igem.org/videos/embed/gPz2zFLViCuTtSMmojyGBe9002022-10-09T22:30:35.965ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vRxGuraQBoKZ6yTKeseyiwhttps://video.igem.org/lazy-static/thumbnails/770ca2f6-52e5-462a-b39e-d4c8ed18ca97.jpgStockholm: IF with Antibody Home Page (2022)Animation for IF with Antibody for the homepage https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/f1c40022-3f2d-4d4a-8c5f-dab3fb4f8b80/0d3f6769-f8a3-4849-8553-794e5ec2c771-master.m3u8https://video.igem.org/videos/embed/vRxGuraQBoKZ6yTKeseyiw6072022-10-09T22:31:35.625ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/etW9fVGR22mepUnEdkC4hUhttps://video.igem.org/lazy-static/thumbnails/e74f7459-0dd8-44fa-9df9-b375c966db17.jpgStockholm: Protein Model Homepage (2022)Animation for protein on homepage https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6d2d4033-c057-4aa1-80fd-539322e86c90/db643ba3-7dd4-4edd-be29-db57160d90e1-master.m3u8https://video.igem.org/videos/embed/etW9fVGR22mepUnEdkC4hU21022022-10-09T22:32:34.524ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6AiLW4EuSVtpWKPeMyZgGshttps://video.igem.org/lazy-static/thumbnails/21a49ab8-90ec-4372-b9b2-74d62c66d8b5.jpgREC-CHENNAI: animated video (2022) [English]Animation of the Curlim bacteria and it's usehttps://static.igem.org/peertube/streaming-playlists/hls/2d47ef7e-6eba-4a2e-8209-4ceac3581a0e/3e65ce24-fe5b-458e-907a-eb6deb50af1c-master.m3u8https://video.igem.org/videos/embed/6AiLW4EuSVtpWKPeMyZgGs9602752022-10-09T22:38:48.804ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/11YvBmrNEpAv3SqiyRBuGZhttps://video.igem.org/lazy-static/thumbnails/7e1091d0-360e-45c0-89a7-f02191f880cc.jpgCornell: csgA⍺ - Blue (2022) [English]Cornell: csgA⍺ - Blue (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/0022d36a-2886-464e-ac6a-725515678101/bfecc22d-eb6b-4c97-a07a-ca4aad4127d9-master.m3u8https://video.igem.org/videos/embed/11YvBmrNEpAv3SqiyRBuGZ240172022-10-10T00:16:24.285ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nJuG8wYaK8W7naTfQsxShLhttps://video.igem.org/lazy-static/thumbnails/0480a1d7-aae8-434f-b359-0f1f6d0dd62f.jpgCornell: csgA⍺ - Pink (2022) [English]Cornell: csgA⍺ - Pink (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/affed50b-9809-4131-93f6-a1269ea4134c/11c328b8-e89b-416f-a804-795883017693-master.m3u8https://video.igem.org/videos/embed/nJuG8wYaK8W7naTfQsxShL240102022-10-10T00:18:14.224ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8d9BAqxWHn9DQzf1rLvHe8https://video.igem.org/lazy-static/thumbnails/5678e227-1dcf-448d-9296-a39f8ffc17c5.jpgCornell: csgA⍺ - Lime (2022) [English]Cornell: csgA⍺ - Lime (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3a623448-62d0-4cf0-8c6f-6ed7ee3347a5/c12bdaff-7d63-4310-a41d-9f5fd983f02f-master.m3u8https://video.igem.org/videos/embed/8d9BAqxWHn9DQzf1rLvHe8240112022-10-10T00:19:01.213ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qpAmX8zmhrHGtbW6YcKEQvhttps://video.igem.org/lazy-static/thumbnails/58c3c05f-8417-4dae-8cd2-37bc627ab1da.jpgCornell: csg𝝲 model (2022) [English]Cornell: csg𝝲 model (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/c5a69c43-4590-41c5-a84b-24060cf923fd/33362812-2c65-4548-8b0c-3c77f586bdb4-master.m3u8https://video.igem.org/videos/embed/qpAmX8zmhrHGtbW6YcKEQv240112022-10-10T00:20:11.385ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8SPbXAyMgEw2NZCUwpvHYNhttps://video.igem.org/lazy-static/thumbnails/132e2f93-23c2-4db7-a171-20ef4f3c6726.jpgNYCU_Formosa: BioArt Workshop, Aug 14 (2022) [English]NYCU_Formosa: BioArt Workshop, Aug 14 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3fc83d86-c712-4526-a5f8-44f53bf42b5a/00e4d1e1-204d-45a8-905f-3777120b0fb2-master.m3u8https://video.igem.org/videos/embed/8SPbXAyMgEw2NZCUwpvHYN144052022-10-10T00:27:22.106ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rXmiaT8DViHu8pvwGCqRuYhttps://video.igem.org/lazy-static/thumbnails/77763ec4-e012-4c45-af35-3fe1ba4698dd.jpgNYCU_Formosa: Education Event, Aug 31 (2022) [English]NYCU_Formosa: Education Event, Aug 31 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/d22ee1b9-038d-4517-85fd-92558a9d9674/c365581a-a211-4f92-b2d5-8d342735a00e-master.m3u8https://video.igem.org/videos/embed/rXmiaT8DViHu8pvwGCqRuY50042022-10-10T00:35:38.240ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vN7ErJAFEdVULzc3ZCahgxhttps://video.igem.org/lazy-static/thumbnails/f0c16b03-df92-488a-a39b-7a37b8a43a61.jpgNYCU_Formosa: BioArt Workshop, Sep 1 (2022) [English]NYCU_Formosa: BioArt Workshop, Sep 1 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/f1495736-23c3-4429-843b-ad0bf952190d/50f16488-7f99-41e3-a689-db142ed8dd5a-master.m3u8https://video.igem.org/videos/embed/vN7ErJAFEdVULzc3ZCahgx155082022-10-10T00:56:23.433ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fyXABY3457RHVUJQA4sabkhttps://video.igem.org/lazy-static/thumbnails/84046769-3d15-42a4-bb1e-5d78ceedce2a.jpgNYCU_Formosa: BioArt Workshop, Sep 8 (2022) [English]NYCU_Formosa: BioArt Workshop, Sep 8 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/75fa0133-1772-4db6-8033-890daed4ae1b/2dd676ce-57ff-45eb-99c3-78538b43f209-master.m3u8https://video.igem.org/videos/embed/fyXABY3457RHVUJQA4sabk145072022-10-10T00:56:28.373ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ek75Jqp7qTSz2AbGrFuTJPhttps://video.igem.org/lazy-static/thumbnails/3372c5ec-3538-4446-879a-03a8e8eec46a.jpgSydney_Australia: Washington and Sydney Podcast - Human Practices (2022) [English]Together with the University of Washington team, who are generating melanoma take-home tests, we recorded a podcast discussing the implications of point of care and take-home testing in the Australian and United States contexts. Some key themes discussed included the differences in skin cancer prevention and treatment in the two countries, issues of equity and access, and the harms of overtesting. Podcast Transcript: https://static.igem.wiki/teams/4488/wiki/pdf/hp-podcast-transcript-sydneywashington.pdfhttps://static.igem.org/peertube/streaming-playlists/hls/6bf1ae9f-06ba-42cd-9069-bb17d217414f/849f3973-c99f-4afc-98ec-2d3f07d9c02d-master.m3u8https://video.igem.org/videos/embed/ek75Jqp7qTSz2AbGrFuTJP26190102022-10-10T02:28:28.275ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dXjshUHyTg4Uxppc8edWh1https://video.igem.org/lazy-static/thumbnails/06b7faf1-357f-4906-9a32-f0ed7f951f18.jpgWorldshaper-HZBIOX: Picture book of colon cancer treatment (2022) [English]This is quick view of our picture book for 6-12 years old kids.https://static.igem.org/peertube/streaming-playlists/hls/68e6f18a-9f5a-4bdf-a0f5-9f54a85e0f88/bafcec97-4e5f-4092-9bd3-2ff041bdb05b-master.m3u8https://video.igem.org/videos/embed/dXjshUHyTg4Uxppc8edWh141052022-10-10T02:28:36.149ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dZQcdk2EdRVpvBoQfuFAoQhttps://video.igem.org/lazy-static/thumbnails/2022fdae-9a41-4031-a6f3-c6dd8613ab9a.jpgWorldshaper-HZBIOX: Reality show (2022) [English]This is our reality show about colon cancer and immunotherapy.https://static.igem.org/peertube/streaming-playlists/hls/6940c24d-b9d8-4b91-8afe-e5756738f88c/3e9c1b27-27fe-42d5-9886-e923e20d9a26-master.m3u8https://video.igem.org/videos/embed/dZQcdk2EdRVpvBoQfuFAoQ240082022-10-10T02:30:52.456ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jBQzVvA9g8kML4UiPsPaMBhttps://video.igem.org/lazy-static/thumbnails/950703dc-535d-4ec2-92a3-cab7ee75aa39.jpgWorldshaper-HZBIOX: Picture book for colon cancer treatment (all) (2022) [English]This is the quick view of Picture book of Colon cancer treatment with LZU-China and SZ-SHD.https://static.igem.org/peertube/streaming-playlists/hls/96c57825-6e3e-4d23-a979-11b323ec7d31/b2db6633-4d25-49c5-afb0-92e56d899b5e-master.m3u8https://video.igem.org/videos/embed/jBQzVvA9g8kML4UiPsPaMB117072022-10-10T02:34:40.715ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eYK3CYyY5WQvayn8kY381qhttps://video.igem.org/lazy-static/thumbnails/e7505e71-3e57-4082-bbc4-af41b177851f.jpgBUCT: bgmusic (2022) [English]Background music of the BUCT teamhttps://static.igem.org/peertube/streaming-playlists/hls/7132fb3e-1269-4d5f-be07-6c2802098d04/e14caa15-aa92-4c22-a1f0-0dced73a84b0-master.m3u8https://video.igem.org/videos/embed/eYK3CYyY5WQvayn8kY381q239052022-10-10T03:13:01.352ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1XQSaYvfxXwiNtceNCBxEghttps://video.igem.org/lazy-static/thumbnails/725e7f25-af0c-4b6f-8634-171e68075573.jpgSCU-China: Hardware (2022) [English]SCU-China: Hardware (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/07cc0580-d620-494a-a5eb-69acd5cb5c3f/1b2c942f-18ec-4e39-86a7-54f496bfa5d6-master.m3u8https://video.igem.org/videos/embed/1XQSaYvfxXwiNtceNCBxEg820222022-10-10T03:17:11.798ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jChZpd6Hj9huNUQHpT1b1Vhttps://video.igem.org/lazy-static/thumbnails/fab66f46-d22e-4902-8eb7-07992ae13c78.jpgTec-Chihuahua: Plant-eating bacteria (2022) [Spanish] [Mexican Sign Language]Tec-Chihuahua: Plant-eating bacteria (2022) [Spanish] [Mexican Sign Language]https://static.igem.org/peertube/streaming-playlists/hls/96d5bde9-c6a7-436d-ad7f-a530fb9c776d/a4790d5e-1748-442e-aa76-4f12a5b87580-master.m3u8https://video.igem.org/videos/embed/jChZpd6Hj9huNUQHpT1b1V940252022-10-10T04:14:52.466ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aDoNgoRetUkNUesRpYpuAxhttps://video.igem.org/lazy-static/thumbnails/3431935e-e39d-4174-8e7b-30430547a3da.jpgTecCEM: Parts Showcase (2022)A video TecCem team made for the parts section of the wiki.https://static.igem.org/peertube/streaming-playlists/hls/4e1ad126-da57-4b57-90ec-1cd0a6b9867b/6a22bae8-2da6-4d08-9288-838c51c7482f-master.m3u8https://video.igem.org/videos/embed/aDoNgoRetUkNUesRpYpuAx160042022-10-10T05:04:50.107ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mZzhXLquF5Kcxjn1cr4BuDhttps://video.igem.org/lazy-static/thumbnails/f9188e9f-0dfc-4069-9248-7e44eef8c804.jpgTecCEM: Parts Showcase [first part] (2022)A video TecCem made for the parts section of our wiki.https://static.igem.org/peertube/streaming-playlists/hls/aa00af6e-ce12-45af-ba14-ee8d383f6dd1/69e3e9f7-bda9-45d5-909e-ea41a80ec952-master.m3u8https://video.igem.org/videos/embed/mZzhXLquF5Kcxjn1cr4BuD220292022-10-10T05:06:13.649ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rEnuQ6ntqNXwworwCXSApAhttps://video.igem.org/lazy-static/thumbnails/154919fc-9061-48bd-82e9-1bade8f7370e.jpgTecCEM: Parts Showcase [second part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/cfcffa50-7a6a-4be8-a6eb-2ce2d2318ce0/a119df00-8f51-480a-b3f1-97c433c70d0b-master.m3u8https://video.igem.org/videos/embed/rEnuQ6ntqNXwworwCXSApA14022022-10-10T05:06:50.994ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/roCXgjb4N7WQbdCwKKz44fhttps://video.igem.org/lazy-static/thumbnails/19c82e70-2d69-475f-8983-9d71ed617f0e.jpgTecCEM: Parts Showcase [third part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/cd9d9a38-cb50-4daa-a968-5e849e645060/a8eb0b6e-d754-4ab8-b343-e3d7da35ddb7-master.m3u8https://video.igem.org/videos/embed/roCXgjb4N7WQbdCwKKz44f14032022-10-10T05:07:30.084ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xuf7bRs5nDC25na9CWT1PJhttps://video.igem.org/lazy-static/thumbnails/39b94c19-b42c-47fc-ae7a-6c3aa185b79e.jpgTecCEM: Parts Showcase [fourth part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/fefcd14c-0bea-4f03-9837-d2549c03ee28/96c5145b-1c76-45ef-9c87-7da348665bf7-master.m3u8https://video.igem.org/videos/embed/xuf7bRs5nDC25na9CWT1PJ13002022-10-10T05:08:06.717ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9CvsHBcSfLd6MGx8uW8jPyhttps://video.igem.org/lazy-static/thumbnails/91af5588-5011-4206-8649-8e01c8200220.jpgTecCEM: Parts Showcase [fifth part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/45e20a6f-b41c-478d-91a6-83c7a3490c86/b3ea94d5-8903-45d4-aced-3cf91ebd243e-master.m3u8https://video.igem.org/videos/embed/9CvsHBcSfLd6MGx8uW8jPy14012022-10-10T05:09:00.149ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hgCEB8KTLVZfiLpdAsbGPVhttps://video.igem.org/lazy-static/thumbnails/67b5f17b-b319-43a8-b955-4d37b30e212c.jpgTecCEM: Parts Showcase [sixth part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/83c0f899-ee88-4ea3-b82b-d791f143636b/d7ac57bc-e986-4a85-9c08-5534696708f9-master.m3u8https://video.igem.org/videos/embed/hgCEB8KTLVZfiLpdAsbGPV11022022-10-10T05:09:44.618ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ejauRqRwY38BNXJLKE1Q9Ghttps://video.igem.org/lazy-static/thumbnails/87e5f411-252f-40d5-9dd7-29c85cfc2deb.jpgTecCEM: Parts Showcase [seventh part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/6bd00b1f-b5d7-4203-a44d-357c504dddf8/1dc7af83-4b72-4f57-8ce2-bca44ac09de1-master.m3u8https://video.igem.org/videos/embed/ejauRqRwY38BNXJLKE1Q9G14022022-10-10T05:10:19.542ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/94c67iA4roAckc7rh2QcEVhttps://video.igem.org/lazy-static/thumbnails/c1eb3cad-51d2-4959-a3e8-89e27713edc9.jpgTecCEM: Parts Showcase [eight part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/413b2c82-3edf-4458-a6d5-693ee0bb582d/1d7b028f-a44e-4755-80ce-2b285aac5c6f-master.m3u8https://video.igem.org/videos/embed/94c67iA4roAckc7rh2QcEV14012022-10-10T05:10:55.013ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bRGzXELNfZkprdetBavkF3https://video.igem.org/lazy-static/thumbnails/8b5aed31-c0bb-4a81-a65f-bf49ebcec9d1.jpgTecCEM: Parts Showcase [ninth part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/57ebd7d1-909f-41f1-80c0-76eed1e66ebc/d557df67-53e9-4e25-962e-131ad375a2f8-master.m3u8https://video.igem.org/videos/embed/bRGzXELNfZkprdetBavkF313012022-10-10T05:11:28.586ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hJGhFCFEWXrobbah5uCoVohttps://video.igem.org/lazy-static/thumbnails/22ba944e-ad49-4170-844b-39150a8e94c8.jpgTecCEM: Parts Showcase [tenth part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/878848f8-873e-4c39-8721-dc6dc253bf90/3a8ff726-021b-4e2e-b0e0-a3920fc1c8c0-master.m3u8https://video.igem.org/videos/embed/hJGhFCFEWXrobbah5uCoVo12002022-10-10T05:13:10.042ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/gDuKfo44S7ehe7vD3AYXCchttps://video.igem.org/lazy-static/thumbnails/7e551b10-3a43-40a4-bfe6-bf616d318d66.jpgTecCEM: Parts Showcase [eleventh part] (2022)A video TecCem made for the parts section of their wiki.https://static.igem.org/peertube/streaming-playlists/hls/7eb55084-f1c1-485e-80f5-783540caf2cf/b695ae38-62ce-4eac-8f16-2901753945af-master.m3u8https://video.igem.org/videos/embed/gDuKfo44S7ehe7vD3AYXCc21022022-10-10T05:13:54.237ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6XTySDj3KS6JkpTC2Khofyhttps://video.igem.org/lazy-static/thumbnails/58f06fb4-68ad-4d67-98b1-c3609256fd3a.jpgTJUSLS_China: The animation in home page (2022)This is a Wiki video describing the process of how Proteinase K become strongerhttps://static.igem.org/peertube/streaming-playlists/hls/304b613a-fdfb-47ae-aa83-118893901bb4/6b58c0fb-43bc-453b-a584-af06b46ed03f-master.m3u8https://video.igem.org/videos/embed/6XTySDj3KS6JkpTC2Khofy32062022-10-10T05:43:56.305ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9cWXTqXwsGPwJ81PaLdimhhttps://video.igem.org/lazy-static/thumbnails/68516d3e-fd38-4f02-af59-548afcb6228d.jpgWorldshaper-HZ: COMICS BOOK (2022) [English]Worldshaper-HZ: COMICS BOOK (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/427429ca-bf37-4218-80d9-db9f11effffc/6a9838af-afcd-437e-a21b-e90c3f3d19ad-master.m3u8https://video.igem.org/videos/embed/9cWXTqXwsGPwJ81PaLdimh33062022-10-10T05:48:39.996ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6eWTqceedSafSM1whsT9m8https://video.igem.org/lazy-static/thumbnails/a8b29f91-9126-4d63-8196-d4a479e97074.jpgTHINKER_CHINA: Hardware Hand Centrifuge Preview (2022) [English]THINKER_CHINA: Hardware Hand Centrifuge Preview (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/2a702ff4-1fb1-4cc6-8135-7ff9fb3c8dc7/9505f999-9e4d-47af-8bd4-3fd5f46265b9-master.m3u8https://video.igem.org/videos/embed/6eWTqceedSafSM1whsT9m8540192022-10-10T06:15:39.400Z PreviewHardwareYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jUFyYBnCWk62rNre9JF5X7https://video.igem.org/lazy-static/thumbnails/d3163906-abdd-418d-9b28-252d2f22d1ff.jpgCSMU_Taiwan: A day with Cellamon EP1 WL-mon (2022) [English]A day with the wet lab Cellamon.https://static.igem.org/peertube/streaming-playlists/hls/991f8e91-6d92-49c4-b5ff-b258ad39ba84/f8294359-e67f-48a4-92d6-a35f3a63e7a8-master.m3u8https://video.igem.org/videos/embed/jUFyYBnCWk62rNre9JF5X751052022-10-10T06:22:40.010ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6VdLLNzj2dXUvrXYZjKrhMhttps://video.igem.org/lazy-static/thumbnails/f5f1b0cd-4dbf-465c-9109-b063cfe48628.jpgCalgary: Nisin Spot on Grape - 12 Day Timelapse (2022)A timelapse of the anti-microbial peptide nisin on bacterial cellulose disks on the surface of a grape. The disks were left for 12 days in order to test nisin's ability to prevent food spoilage in a direct-contact situation. https://2022.igem.wiki/calgary/ https://static.igem.org/peertube/streaming-playlists/hls/2febfbed-c8af-4ce1-9a58-c69f339f3f49/0565cd1d-e24a-4e5c-9a5b-76049a813402-master.m3u8https://video.igem.org/videos/embed/6VdLLNzj2dXUvrXYZjKrhM410272022-10-10T06:31:51.432ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vveU8W4HbVBNGsJpBmCEK2https://video.igem.org/lazy-static/thumbnails/4eb7b1fd-8413-48a1-80ac-03cb156615b7.jpgNYCU_Formosa: human practice logo (2022) [English]our human practice logo https://2022.igem.wiki/nycu-formosahttps://static.igem.org/peertube/streaming-playlists/hls/eeee27ee-1d97-443e-9266-367792cc1797/1015a1d1-598d-41d5-8130-c258aba95bc3-master.m3u8https://video.igem.org/videos/embed/vveU8W4HbVBNGsJpBmCEK210032022-10-10T12:28:41.506ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rDbzn9jXTK2rCaJZh99sRahttps://video.igem.org/lazy-static/thumbnails/310c3ff9-933c-4739-8239-e7c37f456247.jpgThessaloniki_Meta: communication (2022) [Greek]Thessaloniki_Meta: communication (2022) [Greek]https://static.igem.org/peertube/streaming-playlists/hls/cfa580d2-ff63-4cf0-937b-0d67d620becb/0eb000d8-12a3-4920-bcbd-0f752f17763a-master.m3u8https://video.igem.org/videos/embed/rDbzn9jXTK2rCaJZh99sRa310142022-10-10T06:52:49.557ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jaweRfV7fD8SsmUKtibwuWhttps://video.igem.org/lazy-static/thumbnails/a7b61424-196f-4e90-834b-4152886b0e7c.jpgCosta_Rica: IICA Visit (2022) [English]Chassei expo invites IICAhttps://static.igem.org/peertube/streaming-playlists/hls/9318d33b-160b-4024-ae64-4da5e0d7b306/3c55b559-bf05-4600-8c91-889150cf09f2-master.m3u8https://video.igem.org/videos/embed/jaweRfV7fD8SsmUKtibwuW156002022-10-10T07:02:06.877ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/oiZsayAVntctex6Rz6DJofhttps://video.igem.org/lazy-static/thumbnails/7aa27d40-8131-4869-8ccb-2d257820f258.jpgCosta_Rica: Sofía Miranda Hospital Clínica Bíblica visit (2022) [English]Sofia Miranda's visit to Clínica Bíblica's Hospital.https://static.igem.org/peertube/streaming-playlists/hls/b4ac19a1-6d20-4ca0-8952-7430f4620b6a/8f7ce80c-ffe8-4da0-ac20-41540101223b-master.m3u8https://video.igem.org/videos/embed/oiZsayAVntctex6Rz6DJof41012022-10-10T07:07:40.663ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mXxfHpzU31QimhAPfvDcm1https://video.igem.org/lazy-static/thumbnails/956ee781-7729-4afb-b113-c48164a19155.jpgSogang_Korea: Robot motion from incubator to plate position (2022) [English]https://2022.igem.wiki/sogang-korea/proof-of-concepthttps://static.igem.org/peertube/streaming-playlists/hls/a9b7f0fa-4eb2-49df-8e5c-ef8ac59bad2c/765a3a2b-fda0-4ad3-8206-00d4676d9ad6-master.m3u8https://video.igem.org/videos/embed/mXxfHpzU31QimhAPfvDcm182022022-10-10T07:12:20.939ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cvJk73BB45oLGPARXtTrYHhttps://video.igem.org/lazy-static/thumbnails/a49f3cf6-5905-4fb1-90b4-c7e989c63b8c.jpgCosta_Rica: CINDE VISIT (2022) [English]Chassei expo invites CINDEhttps://static.igem.org/peertube/streaming-playlists/hls/5d3b2e55-f59e-4ece-8d57-dd94f3a987a5/541a802e-0463-4b16-9cf6-e5cf11c779b0-master.m3u8https://video.igem.org/videos/embed/cvJk73BB45oLGPARXtTrYH143012022-10-10T07:16:34.499ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bmZxdteaMqgkHMKzqVFL6Khttps://video.igem.org/lazy-static/thumbnails/067c51fc-a5f4-45c0-8e5a-4da9ff560feb.jpgNYCU-Taipei: Device Demo (2022) [English]The demonstration of our detection devicehttps://static.igem.org/peertube/streaming-playlists/hls/53e9b89e-88e0-4730-8718-91b1308787a5/5c9c1082-432f-4b0c-91b8-8b671361f115-master.m3u8https://video.igem.org/videos/embed/bmZxdteaMqgkHMKzqVFL6K910292022-10-10T07:19:17.176ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jnCMtaErRSYPdnY2a9FibXhttps://video.igem.org/lazy-static/thumbnails/c279433a-1ed6-42bb-859b-34af67a674cc.jpgSogang_Korea: Cell Seeding of SynBioBot (2022) [English]https://2022.igem.wiki/sogang-korea/resultshttps://static.igem.org/peertube/streaming-playlists/hls/94c9c8b1-65f8-4ee7-afab-141359de8457/9593ef8b-154e-42ff-9b56-993a81d8c25f-master.m3u8https://video.igem.org/videos/embed/jnCMtaErRSYPdnY2a9FibX1260112022-10-10T07:34:49.754ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rbseko5EpNChhTT7vXJ2m8https://video.igem.org/lazy-static/thumbnails/f474c4ff-1061-4d98-be06-078ced149e45.jpgCambridge: microscope (2022) [English]microscope taking images in actionhttps://static.igem.org/peertube/streaming-playlists/hls/cbea11a6-ab3e-4a02-9d7c-734a30118dd3/58d6dc19-b8b2-4523-a45a-098dc00566db-master.m3u8https://video.igem.org/videos/embed/rbseko5EpNChhTT7vXJ2m820092022-10-10T07:37:07.350ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3RH741iFgfZoVohm8Kf4xxhttps://video.igem.org/lazy-static/thumbnails/9f6ce0c0-b211-4377-bf48-1bb228f9cbcf.jpgTU_Dresden: hydrogel crosslinking simulation (2022)This animation is a visualization of a Brownian Dynamics model of the crosslinking process in a starPEG-starPEG hydrogel. Over time new (green) bonds are formed between the loose ends of the starPEG molecules which leads to the formation of a mesh. You can find more information about how this is connected to our project on our wiki: https://2022.igem.wiki/tu-dresden/https://static.igem.org/peertube/streaming-playlists/hls/17230db2-362f-4969-9d18-47daa869a2d1/9d826eea-7a31-4305-b302-d80cd072455f-master.m3u8https://video.igem.org/videos/embed/3RH741iFgfZoVohm8Kf4xx100312022-10-10T07:45:17.840ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2WEvdBJDFHfMBmW62YtJjPhttps://video.igem.org/lazy-static/thumbnails/57045765-2da1-4270-9619-79207681e3fd.jpgWego_Taipei: The Hardware (2022) [English]This video introduces the hardware device with an example showing how to use install the filters onto the device. https://static.igem.org/peertube/streaming-playlists/hls/0fbb07f0-e031-45ec-bcdf-46f9f7abcbc3/207fe2ca-08f2-4960-9369-ec8c6f50cb7d-master.m3u8https://video.igem.org/videos/embed/2WEvdBJDFHfMBmW62YtJjP31082022-10-10T07:44:02.166ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/oMbyuCc2iKeGqtcPFRQqQphttps://video.igem.org/lazy-static/thumbnails/8ac5d9a5-7ffc-4de9-ba11-0f4b327b8bfd.jpgWego_Taipei: The Design of Caps (2022) [English]This video gives an overview of the usage of caps the Wego_Taipei igem team used in the device. The caps protect the filter papers and prevent bacteria leakage. https://static.igem.org/peertube/streaming-playlists/hls/b8780734-7c0f-469f-b9b7-c6a65650f587/8318354f-82ff-4615-92a2-219abf964157-master.m3u8https://video.igem.org/videos/embed/oMbyuCc2iKeGqtcPFRQqQp61092022-10-10T07:49:44.822ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mHwZEjtgcFxvQQQPWpYsxuhttps://video.igem.org/lazy-static/thumbnails/611ef469-7026-423f-9399-0810ec8265ab.jpgTHINKER_CHINA: An Education Activity in Biology Club: What is Synthetic Biology？ (2022) [Chinese]THINKER_CHINA: An Education Activity in Biology Club: What is Synthetic Biology？ (2022) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/a7c35e5c-1c20-4d99-bbdb-48f0a4befb7a/31521fb2-443c-456f-85fa-04db6a03880b-master.m3u8https://video.igem.org/videos/embed/mHwZEjtgcFxvQQQPWpYsxu1088042022-10-10T10:07:39.403ZEducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uvSUn8cSLYoY1P3WJymLRGhttps://video.igem.org/lazy-static/thumbnails/70ebacfb-7736-4c3e-b2f0-28f666017cc5.jpgWHU-China: ICII IN CHINA (2022) [English]ICII: Into China Into iGEM including:NAU BIT ZJU LZU Fudan SCU OUC WHU Tianjin NEFU CPU CSUhttps://static.igem.org/peertube/streaming-playlists/hls/e6ebd261-17e8-4955-b2ed-304b50488c52/1882ef17-6e93-498c-9980-ad573da468c5-master.m3u8https://video.igem.org/videos/embed/uvSUn8cSLYoY1P3WJymLRG392082022-10-10T10:10:27.648ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8xRChYAxMUyj5qw4coJW5chttps://video.igem.org/lazy-static/thumbnails/959c7700-4ff8-437e-801c-d01db235dea9.jpgWHU-China: Hardware of WHU-China (2022) [English]The hardware part of WHU-iGEM-2022https://static.igem.org/peertube/streaming-playlists/hls/3d229c45-8e53-4314-8249-24e35167141b/89304b7d-7f70-4831-b65a-7d1a2733a749-master.m3u8https://video.igem.org/videos/embed/8xRChYAxMUyj5qw4coJW5c80132022-10-10T10:10:29.457ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tTXxmZnxgufMddcbimGXvnhttps://video.igem.org/lazy-static/thumbnails/4108b024-84c4-4f7d-9b01-eb48be3e7792.jpgFreiburg: Molecular dynamic simulation BMC T1 (2022) [English]Bacterial Microcompartment (BMC) T1 trimer-complex molecular dynamic simulation in NAMD for 30 ns. BMC derived from Haliangium ochraceum (PDB: 6n06) with introduced Spy/Snp and His tag. Mutation 1 has deletion mutation in loops that form the pore in the middle of the complex. Mutation 2 has insertion mutation at the same sites.https://static.igem.org/peertube/streaming-playlists/hls/e1e7e77e-9f34-43e3-bdd4-382a90c97e83/36fc4571-a434-45b6-a1f2-2f02de4fda8a-master.m3u8https://video.igem.org/videos/embed/tTXxmZnxgufMddcbimGXvn500402022-10-10T10:30:18.889ZT1 proteinbacterial microcompartmentpore size mutation simulationwiffleballmolcular dynamicsYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4LuwBKS3wSmEmHAxk218Sqhttps://video.igem.org/lazy-static/thumbnails/24d36376-23ad-473a-930f-344b2cab94ee.jpgLambert_GA: educationPresenation (2022) [English]Education Presentation https://2022.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/1e81b908-6cab-4741-a408-628e3ec67f18/afac3826-31ba-4d4b-829d-9bb9f63f355e-master.m3u8https://video.igem.org/videos/embed/4LuwBKS3wSmEmHAxk218Sq1530182022-10-10T10:40:25.789ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tXRVDar5NN7UJG4PqQ6v3phttps://video.igem.org/lazy-static/thumbnails/24094cc2-e462-44e7-a45d-365cb3cc784e.jpgSuZhou_Union: Software (2022) [English]SuZhou_Union: Software (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/e2736b1f-41b7-4eec-b678-a677723c6ba7/9ea665d9-7cf3-4ed4-bdcf-abdc8fc0c8fb-master.m3u8https://video.igem.org/videos/embed/tXRVDar5NN7UJG4PqQ6v3p1100102022-10-10T11:57:22.922ZSuZhou_UnionYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qFPKFUUUQ34CYNKkdTjVDHhttps://video.igem.org/lazy-static/thumbnails/cd6a2a59-9efd-43cb-be09-78ff160ce170.jpgCU_Egypt: home page background video (2022)home page intro videohttps://static.igem.org/peertube/streaming-playlists/hls/c7eac38b-cc04-4c94-aea3-fcba6b6815bf/fb5ed653-5c77-4404-a6eb-cded7913ed4d-master.m3u8https://video.igem.org/videos/embed/qFPKFUUUQ34CYNKkdTjVDH12010862022-10-10T13:36:25.750ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/d6VUNiRKUMoGjnVJedvqdXhttps://video.igem.org/lazy-static/thumbnails/ccb60685-69b3-4798-a59b-1ca346e5c1ed.jpgIISc-Bengaluru: camphor_comparison (2022)Showcases the docking result of Cytochrome P450cam (cyan) with Camphor. Crystallographic position of Camphor is shown in Green and docked position in Magenta. Residues near active sites are displayed and the mesh represents the predicted active site.https://static.igem.org/peertube/streaming-playlists/hls/62019b2e-d69f-4665-bc78-b3fc0a7066b7/ce611846-eac6-4e7d-af15-2838028c2ab3-master.m3u8https://video.igem.org/videos/embed/d6VUNiRKUMoGjnVJedvqdX120132022-10-10T13:34:24.911ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cPmZqG35C72MR7NV8J8vvFhttps://video.igem.org/lazy-static/thumbnails/b423ad85-ae5f-4b1d-bbf4-0494d0dc2110.jpgStony_Brook: Protein Concentration (2022) [English]Stony_Brook: Protein Concentration (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/5fb16b05-d0be-4a32-ab61-f7ab2bcac125/9f6195c8-31e5-45f6-ac67-a9585935beed-master.m3u8https://video.igem.org/videos/embed/cPmZqG35C72MR7NV8J8vvF200082022-10-10T13:43:38.255ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6vfc9MUyr5DLU6RFLrYJ2yhttps://video.igem.org/lazy-static/thumbnails/d505db15-4fd2-4367-b98b-f68a96a2be4d.jpgStony_Brook: mRNA Concentration (2022) [English]Stony_Brook: mRNA Concentration (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/2c930248-fcfb-4bf4-ac31-4502937a3a52/bdcd6b97-9959-442d-870e-d2b5d4a1edfd-master.m3u8https://video.igem.org/videos/embed/6vfc9MUyr5DLU6RFLrYJ2y2000172022-10-10T13:48:12.933ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jTELJhvKZimjddnt5TEYEohttps://video.igem.org/lazy-static/thumbnails/0acec514-47a5-47a0-8bf5-1720b9111b7f.jpgStony_Brook: DNA Concentration (2022) [English]Stony_Brook: DNA Concentration (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/98fb525d-df3a-4523-8249-fb4aaea73c72/f01d22e5-e68b-4ceb-97fe-1fee8d04ba15-master.m3u8https://video.igem.org/videos/embed/jTELJhvKZimjddnt5TEYEo200082022-10-10T13:50:44.507ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6yhD9j1RZwwAxAacPVkZvmhttps://video.igem.org/lazy-static/thumbnails/e4562ded-ccd1-49b8-9216-6e16de03bd7a.jpgSUSTech_Shenzhen: Online Class for Pupils (2022) [Chinese]Online Class for Pupils https://static.igem.org/peertube/streaming-playlists/hls/2cffbfbb-4cd7-48c9-b91c-bbf26b733492/a001694a-4571-4456-aed7-1d1f74499151-master.m3u8https://video.igem.org/videos/embed/6yhD9j1RZwwAxAacPVkZvm3561012022-10-10T14:28:38.603ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/oWRmfety76z9NpM2F2cgMhhttps://video.igem.org/lazy-static/thumbnails/5d655904-07f4-4439-8a26-d39616dfdbc0.jpgWarwick: Pyre Landing (2022) [English]PyRe Landing Video for Warwick Wiki: https://2022.igem.wiki/warwick/index https://static.igem.org/peertube/streaming-playlists/hls/b9d1a064-c3ad-41fc-a417-2c97ad78c146/db9354d9-3ee4-4006-8c42-772ea6f47607-master.m3u8https://video.igem.org/videos/embed/oWRmfety76z9NpM2F2cgMh2306022022-10-10T14:21:26.563ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pxSikhaWhTuZtW43JmBo8ehttps://video.igem.org/lazy-static/thumbnails/b668f994-2232-4902-9f24-6ef462697ef0.jpgSogang_Korea: Lentiviral Transduction of SynBioBot (2022) [English]https://2022.igem.wiki/sogang-korea/results https://2022.igem.wiki/sogang-korea/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/beb53e6a-3011-48c7-a58d-7952d8b6dbb3/c4db20c9-59dd-4451-a353-0de27ddd05cf-master.m3u8https://video.igem.org/videos/embed/pxSikhaWhTuZtW43JmBo8e4300732022-10-10T15:33:37.427ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5YyZJ9bSjW434VNFgR26mzhttps://video.igem.org/lazy-static/thumbnails/f25ed32f-391d-49b0-b1c5-84128873249c.jpgSUSTech_Shenzhen: EPIC 7.2 (2022) [English]EPIC 7.2 https://static.igem.org/peertube/streaming-playlists/hls/284a8a32-1e72-427a-9aa0-686eb0e49eb5/9967804b-8cf0-40b3-b5b0-ad5ddd2c4dda-master.m3u8https://video.igem.org/videos/embed/5YyZJ9bSjW434VNFgR26mz3228002022-10-10T14:50:18.651ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/gcqA2u9G6zxLVWmboMnUj9https://video.igem.org/lazy-static/thumbnails/2f751046-664c-46dc-a02e-c61ece435964.jpgTU-Eindhoven: TU/e contest 23-06-22 (2022) [English]On the 23th of June, iGEM team Eindhoven joined the TU/e contest. A competition organized by the TU/e innovation space, a community that develops and facilitates interdisciplinary hands-on challenge-based learning on engineering design and entrepreneurship. Enjoy watching! Wiki: https://2022.igem.wiki/tu-eindhoven/index.html https://static.igem.org/peertube/streaming-playlists/hls/7b1169d6-916a-47a2-b9eb-3ee23d937cc4/6a8dabf5-938e-45d5-bf17-8f6c149c535c-master.m3u8https://video.igem.org/videos/embed/gcqA2u9G6zxLVWmboMnUj9640162022-10-10T14:41:52.335ZEindhovencommunicationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eeoJ4GoH7DNmpioXRuc7qShttps://video.igem.org/lazy-static/thumbnails/79f73212-8ca3-4d99-81df-aceabe3af711.jpgGreatBay_SCIE Documentar Trailer (2022) [English]Our self-produced documentary starts with a trailer, stressing the problematic nature of the clothes, paving the way for the subsequent four full episodes to reveal the hidden truth to the public.https://static.igem.org/peertube/streaming-playlists/hls/6b2579fc-dc74-4745-8ece-5d5b68941b52/61936417-5351-44a2-b35e-b65e49af60ff-master.m3u8https://video.igem.org/videos/embed/eeoJ4GoH7DNmpioXRuc7qS66022022-10-10T14:39:39.521ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iKsp3FatYYb2PRdPHerxYphttps://video.igem.org/lazy-static/thumbnails/0846f242-8533-44fd-a2b2-70b9f4ee0456.jpgSUSTech_Shenzhen: EPIC 7.1 （1） (2022) [English]EPIC 7.1 （1）https://static.igem.org/peertube/streaming-playlists/hls/8fbc9b76-3c85-4088-9ee5-1dd59f28a13b/92604aae-a5ca-47ef-aa84-481815c71e35-master.m3u8https://video.igem.org/videos/embed/iKsp3FatYYb2PRdPHerxYp3761002022-10-10T15:22:24.982ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sSDy7d6k5DnJtQbTDbL3uShttps://video.igem.org/lazy-static/thumbnails/5af34d84-4e84-4835-9bad-1bf5fb8b1729.jpgGreatBay_SCIE: Documentar Trailer (2022) [English]Our self-produced documentary starts with a trailer, stressing the problematic nature of the clothes, paving the way for the subsequent four full episodes to reveal the hidden truth to the public.https://static.igem.org/peertube/streaming-playlists/hls/d99fefd6-ab2b-4667-8f3b-4f7537863832/fd59d77e-afd5-4704-9334-e93a41be45de-master.m3u8https://video.igem.org/videos/embed/sSDy7d6k5DnJtQbTDbL3uS660142022-10-10T14:44:19.796ZSustainabilityFashionWasteYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9sQUhpu6Y8i3xYhziHjZvyhttps://video.igem.org/lazy-static/thumbnails/d3d3b91d-fb01-4800-a1ae-c1f832ff4a2c.jpgTU-Eindhoven: SHC challenge 14-06-2022 (2022) [English]On the 14th of May, iGEM team Eindhoven competed in the sustainable healthcare challenge. Enjoy watching! Wiki:https://2022.igem.wiki/tu-eindhoven/index.html https://static.igem.org/peertube/streaming-playlists/hls/44889578-e3ee-48a2-bb4a-09e2120405f6/b642a469-7d05-4e83-85e5-fcac662c051c-master.m3u8https://video.igem.org/videos/embed/9sQUhpu6Y8i3xYhziHjZvy480122022-10-10T14:45:23.325ZEindhovencommunicationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uqBATyhwjBCy2fLbGQaJdEhttps://video.igem.org/lazy-static/thumbnails/3b031a09-a531-4167-9bdc-92a2f64bc2e4.jpgSogang_Korea: Subculturing of SynBioBot (2022) [English]https://2022.igem.wiki/sogang-korea/resultshttps://static.igem.org/peertube/streaming-playlists/hls/e62fac55-c779-40b4-a768-47bec2d9eeae/eae7447d-1da8-4d33-a9ad-f9ffe139d0a7-master.m3u8https://video.igem.org/videos/embed/uqBATyhwjBCy2fLbGQaJdE631082022-10-10T15:02:54.157ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dYD17fyP9ocDcH5XxKNWAehttps://video.igem.org/lazy-static/thumbnails/6ecb044d-0174-44db-92eb-31cfcb01ed42.jpgSUSTech_Shenzhen: EPIC 7.1 (2) (2022) [English]EPIC 7.1 (2)https://static.igem.org/peertube/streaming-playlists/hls/69161e45-5188-43ee-805e-c9e836b3c559/a0557c9b-e9e2-429b-8799-6abcb93f2ca5-master.m3u8https://video.igem.org/videos/embed/dYD17fyP9ocDcH5XxKNWAe1696012022-10-10T15:32:20.125ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cBQL97kErAKUDiLRdbXNAPhttps://video.igem.org/lazy-static/thumbnails/3389b90c-af09-4eaa-b6b4-9ee20994dd8a.jpgNCKU_Tainan: Audiobook3 (2022) [English]NCKU_Tainan: Audiobook3 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/5e159b75-9865-4dd2-9777-e9891b8d2453/199749c4-32a6-4e57-9293-aeefdae98410-master.m3u8https://video.igem.org/videos/embed/cBQL97kErAKUDiLRdbXNAP191012022-10-10T15:30:34.319ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ouhiEvXCrSNCDt6KPqeEN8https://video.igem.org/lazy-static/thumbnails/37f69cae-6261-4f29-ba46-fc37c7cc5e55.jpgNCKU_Tainan: Audiobook3 (2022) [English]NCKU_Tainan: Audiobook3 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/b61bec92-f89e-4fb4-802e-663a7211a1f3/15988938-bca5-43e2-9348-c67503094c71-master.m3u8https://video.igem.org/videos/embed/ouhiEvXCrSNCDt6KPqeEN8191022022-10-10T15:30:40.315ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6cfk238omXpf6uvyjEDQYXhttps://video.igem.org/lazy-static/thumbnails/acb6c21d-981e-489f-b0a7-8a8540ad7288.jpgSUSTech_Shenzhen: Communication with Master (2022) [Chinese]与非遗传承人交流https://static.igem.org/peertube/streaming-playlists/hls/2a0fb463-d980-4dec-b616-a0880eafb78f/3269cf26-4197-45dc-aff2-ef210631871a-master.m3u8https://video.igem.org/videos/embed/6cfk238omXpf6uvyjEDQYX78022022-10-10T15:34:01.986ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9yCQJFEJzrV4f7mHhdLk3Jhttps://video.igem.org/lazy-static/thumbnails/4aa1c9e5-8f45-4f49-9981-585a516844c3.jpgSUSTech_Shenzhen: Teaching class to our students (2022) [Chinese]SUSTech_Shenzhen: Teaching class to our students https://static.igem.org/peertube/streaming-playlists/hls/45579d11-5707-468e-9c1d-b9ebbe4c382a/c5c7e094-a888-43fa-a382-717eec1a9a2c-master.m3u8https://video.igem.org/videos/embed/9yCQJFEJzrV4f7mHhdLk3J2513012022-10-10T15:47:46.784ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/faMMkpDKECRWRhmqnntkERhttps://video.igem.org/lazy-static/thumbnails/0201be76-1825-4ff2-bb17-dd8c54486955.jpgSUSTech_Shenzhen: SUSTechOnline 0730 (2022) [English]SUSTechOnline 0730https://static.igem.org/peertube/streaming-playlists/hls/72bdd95e-c9e7-4c6e-ae19-e69601d2cf21/547572db-9d70-4bc2-972e-381c4970d6a0-master.m3u8https://video.igem.org/videos/embed/faMMkpDKECRWRhmqnntkER490002022-10-10T15:48:36.740ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3NY4oQXdhPLdpGbBBBLUSohttps://video.igem.org/lazy-static/thumbnails/94aedda4-62dc-4cf7-a00e-445a7d2dd810.jpgSCU-China: Human Practices (2022) [English]SCU-China: Human Practices (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/16c109bc-2741-4f0e-b464-590cbfe4b56a/f82ba34d-d905-4e8b-8739-e8b8e612f709-master.m3u8https://video.igem.org/videos/embed/3NY4oQXdhPLdpGbBBBLUSo3350382022-10-10T16:36:24.020ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/m7vnkxs5QUjEUbBudcoFUChttps://video.igem.org/lazy-static/thumbnails/023f0597-b9b4-46b2-b70d-f51f3eb59f44.jpgSCU-China: Interview (2022) [English]SCU-China: Interview (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/a2df559c-673a-4e27-a1cc-76fa089b7788/619b872a-17f6-4158-a54f-7b781427acb8-master.m3u8https://video.igem.org/videos/embed/m7vnkxs5QUjEUbBudcoFUC4970102022-10-10T16:43:31.698ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/86Jr2CLhGHB91s7QjumtP2https://video.igem.org/lazy-static/thumbnails/0fe3cff6-30d4-4b67-8b93-0eecc7c8dbca.jpgSCU-China: Machine Learning (2022) [English]SCU-China: Machine Learning (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/397cd6bd-203d-451c-9b4d-92bc79735893/c005a142-f519-415a-a526-cf289dfdca16-master.m3u8https://video.igem.org/videos/embed/86Jr2CLhGHB91s7QjumtP21505022022-10-10T16:46:32.444ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nRvm4Zz6X1V6SvffrUQvkNhttps://video.igem.org/lazy-static/thumbnails/42aab938-3c27-4e3c-a167-9fa26926597e.jpgSCU-China: Protein Translation Game (2022) [English]SCU-China: Protein Translation Game (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/b0f97114-26e3-481e-9a45-63b77a42e470/b35aa899-5f73-44a7-83c4-c07c44780d39-master.m3u8https://video.igem.org/videos/embed/nRvm4Zz6X1V6SvffrUQvkN1070122022-10-10T16:47:07.983ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3krWLxZNErheztYx9qhQAKhttps://video.igem.org/lazy-static/thumbnails/889867dc-95cc-49ce-a8c8-72ce33d0bc6e.jpgSCU-China: Sweets (2022) [English]SCU-China: Sweets (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/12e965ce-525b-4add-a79d-72aba733ce5f/91fdb9af-431a-4e47-9499-4573a721ffc8-master.m3u8https://video.igem.org/videos/embed/3krWLxZNErheztYx9qhQAK1335082022-10-10T16:49:40.755ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vq9TpFfLYTjFibdZuNGD99https://video.igem.org/lazy-static/thumbnails/462f3bb4-dc54-4cbd-9975-fd1ad801b4a9.jpgSCU-China: Vaccine (2022) [English]SCU-China: Vaccine (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/ee385918-4598-4cd1-a4f7-5a8dc4e7d6ec/a8da91a6-bfbb-4c6e-9bb1-6250f977c498-master.m3u8https://video.igem.org/videos/embed/vq9TpFfLYTjFibdZuNGD991828042022-10-10T16:55:33.527ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3nCyPkoojgv7sfUni4KmHQhttps://video.igem.org/lazy-static/thumbnails/99167ec3-fd55-452c-8837-54a80eeaaa9e.jpgCosta_Rica: Integrated Human Practice (2022) [English]Costa Rica's team integrated human practice video.https://static.igem.org/peertube/streaming-playlists/hls/13376e53-82e9-47e3-8063-008b9434b312/6ee72659-40ce-44af-94b0-cd75f31c8088-master.m3u8https://video.igem.org/videos/embed/3nCyPkoojgv7sfUni4KmHQ108032022-10-10T16:21:28.622ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/x15TMwXW8kUmQ5G9shby5Dhttps://video.igem.org/lazy-static/thumbnails/9a79130a-fe7c-422f-a3da-e961adec844c.jpgUAM: Agave production throughout the time (2022) [English]Map showing the gave production throughout the time in Méxicohttps://static.igem.org/peertube/streaming-playlists/hls/fb0e5054-1772-4cae-94b9-d4bf2f78685d/da33aa8e-47de-43bb-9b6d-90d224e32afa-master.m3u8https://video.igem.org/videos/embed/x15TMwXW8kUmQ5G9shby5D32072022-10-10T16:49:20.566ZAgavescienceMéxicoYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qowNVK2cZPwoahoGNjCqWuhttps://video.igem.org/lazy-static/thumbnails/d5255771-5135-4a60-8a43-d1f3d954d941.jpgUAM: Avocado production throughout the time (2022) [English]Map showing the avocado production throughout the time in Méxicohttps://static.igem.org/peertube/streaming-playlists/hls/c580ad73-de9f-4f0d-b7da-d9bdc292d638/81bf8400-4780-485f-a51a-df0086d9f16a-master.m3u8https://video.igem.org/videos/embed/qowNVK2cZPwoahoGNjCqWu50022022-10-10T16:53:14.906ZAvocadoMéxicoscienceYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3Any6jBLVDuJhZvLU9yBoJhttps://video.igem.org/lazy-static/thumbnails/9c2d8dd1-cc50-481b-a20a-7fe5cc1c7023.jpgUAM: Chiliproduction throughout the time (2022) [English]Map of México showing the chili production throughout the timehttps://static.igem.org/peertube/streaming-playlists/hls/14fed923-6aa2-487b-99d4-e0c5f7c7f792/264e377f-1f43-4f2e-bfb7-03df947042d9-master.m3u8https://video.igem.org/videos/embed/3Any6jBLVDuJhZvLU9yBoJ15052022-10-10T16:53:21.025ZchiliscienceYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bgeMAhsJpVNTJQrUMA9PJ1https://video.igem.org/lazy-static/thumbnails/ee73a7f9-1124-4da6-98f3-9be5ceb9555a.jpgUAM: Coconut production throughout the time (2022) [English]Map of México showing the coconut production throughout the timehttps://static.igem.org/peertube/streaming-playlists/hls/531c0a02-eddd-4053-a3ed-68f366d25920/9a55de01-bd8f-471d-a65f-39901dbd4556-master.m3u8https://video.igem.org/videos/embed/bgeMAhsJpVNTJQrUMA9PJ138032022-10-10T16:55:45.218ZMéxicosciencecoconutYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5YmogLkNcba1vX7p1gzDrKhttps://video.igem.org/lazy-static/thumbnails/cb6aa29d-b4b9-4590-b76d-c7c4fee94a8b.jpgUAM: Cotton production throughout the time (2022) [English]Map of México with the cotton production throughout the timehttps://static.igem.org/peertube/streaming-playlists/hls/2842c491-6fa9-4c44-bff6-395687b00ee1/cce818e3-7901-486d-9c7d-ff55c3992601-master.m3u8https://video.igem.org/videos/embed/5YmogLkNcba1vX7p1gzDrK38032022-10-10T16:57:08.198ZsciencecottonMéxicoYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aAsvL6YAViyvY5G5qdQJLXhttps://video.igem.org/lazy-static/thumbnails/34f411b8-aa16-4501-860c-eb6fd9d835f7.jpgUAM: Nopal production throughout the time (2022) [English]Map of México showing the Nopal production throughout the timehttps://static.igem.org/peertube/streaming-playlists/hls/4db1e01a-8518-4a8e-bd74-93e4b9fcf257/c1d12ae9-9ffb-4023-bea3-f130ff13bab4-master.m3u8https://video.igem.org/videos/embed/aAsvL6YAViyvY5G5qdQJLX220112022-10-10T17:00:38.077ZMéxicoscienceNopalYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5Wb9Rp5BehNsmnMmXHohzVhttps://video.igem.org/lazy-static/thumbnails/6da6858f-b0aa-4b45-9749-cbb3542bf754.jpgHUST-China: hardware1 (2022) [English]Hardware Function Demonstration https://2022.igem.wiki/hust-china/Hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/27f4f999-0a06-4a64-959e-e5d7f95c00cf/cb6ba4f0-66cf-427d-8105-54251530c32f-master.m3u8https://video.igem.org/videos/embed/5Wb9Rp5BehNsmnMmXHohzV120472022-10-10T17:16:33.778ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vj1W951tsnFNLtXpT76fWHhttps://video.igem.org/lazy-static/thumbnails/b9cd7ec8-579a-437d-a366-cb55056e01e8.jpgToronto: index video (2022)This is an introduction video for our index page https://static.igem.org/peertube/streaming-playlists/hls/ed5cfbf7-b252-4c7f-a736-ed2d1c8b48a5/3a631dbb-a60e-4abf-9248-f918d7134cd3-master.m3u8https://video.igem.org/videos/embed/vj1W951tsnFNLtXpT76fWH51022022-10-10T18:25:06.386ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9QmG7Jt7CoBZMDcBNnCaGDhttps://video.igem.org/lazy-static/thumbnails/758527ba-6f55-46cb-b5f7-6988d6c6cc30.jpgCHINA-FAFU: video-human practices-education-10 (2022)On April 24th, China-FAFU team invited outstanding senior students of Fujian Agriculture and Forestry University to explain the innovation and entrepreneurship knowledge of college students to team members in the conference room on the 4th floor of College of Life Sciences.During this period, the outstanding graduating class students discussed a series of topics with the prospect of biology and future development direction as the starting point. The event had a remarkable impact, not only improving the insights of the team members, but also providing relevant thoughts for the future development direction of the team. https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/47898fda-6611-429b-a6af-cd88cacda369/af707d8a-8b9f-40a2-8dd9-0ab8c426c1c4-master.m3u8https://video.igem.org/videos/embed/9QmG7Jt7CoBZMDcBNnCaGD64022022-10-10T18:30:28.178ZCHINA-FAFUEducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mfWMLdU6R46soJjW686BGphttps://video.igem.org/lazy-static/thumbnails/35c55ecb-ca13-4ada-b9e2-e2aacfc07c2c.jpgCHINA-FAFU: video-hardware-1 (2022)We designed an environmentally friendly microalgae bioreactor to purify wastewater. Microalgae offer an ideal process for resource recovery and carbon dioxide fixation through nutrients assimilation, biomass harvesting to reduce purification costs. And collecting mature microalgae as raw materials for valuable products result in additional profits. https://2022.igem.wiki/china-fafu/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/a40cf36e-8be5-4abf-bcbc-816bca0af3eb/9bab59b5-c977-4fd8-9046-a8c3dccc75e7-master.m3u8https://video.igem.org/videos/embed/mfWMLdU6R46soJjW686BGp20002022-10-10T18:32:25.062ZCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cAVA7XDCRzE46RmHHPxaNxhttps://video.igem.org/lazy-static/thumbnails/71996560-5b76-46f8-83cb-1d2443cddbe8.jpgCHINA-FAFU: video-hardware-2 (2022)We designed an environmentally friendly microalgae bioreactor to purify wastewater. Microalgae offer an ideal process for resource recovery and carbon dioxide fixation through nutrients assimilation, biomass harvesting to reduce purification costs. And collecting mature microalgae as raw materials for valuable products result in additional profits. https://2022.igem.wiki/china-fafu/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/5df4d6a0-9b81-481f-b733-9383db08d977/3f3bfed7-bf12-4527-803e-12d7df57edcd-master.m3u8https://video.igem.org/videos/embed/cAVA7XDCRzE46RmHHPxaNx540262022-10-10T18:34:13.045ZCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jurJ4WGYwNFjU2JHqXaRRKhttps://video.igem.org/lazy-static/thumbnails/1b1f0c0d-d9fb-4acd-9ec4-7cc9e8dce276.jpgCHINA-FAFU: video-math_model-1 (2022)https://2022.igem.wiki/china-fafu/math_modelhttps://static.igem.org/peertube/streaming-playlists/hls/95bd2cdb-9343-4e46-9a20-0bbc2c5f5241/d1a34b0e-40b9-47f8-9de2-6655441e655d-master.m3u8https://video.igem.org/videos/embed/jurJ4WGYwNFjU2JHqXaRRK200262022-10-10T18:35:26.505ZCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/28K3diauLzRThmiyBpLyANhttps://video.igem.org/lazy-static/thumbnails/7da060cb-26b6-4c3f-afbc-95a8c11b80f9.jpgCHINA-FAFU: video-human practices-education-11 (2022) [English]One of the important prerequisites for the steady development of a country is the stability and security of the ecological environment. Protecting the environment and saving resources requires the joint efforts of generations or even dozens of generations. Therefore, the education of minors is very important. We believe that motivating minors to take responsibility for conserving and protecting water while imparting simple skills and problem-solving skills can make the learning process more enjoyable and engaging by providing a visual learning medium. To this end, we made a short animation for popular science propaganda. https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/092dde45-4b93-4864-967f-146b27583f12/84ed3f3b-23b3-4f15-8910-94b5c67db254-master.m3u8https://video.igem.org/videos/embed/28K3diauLzRThmiyBpLyAN162012022-10-10T18:52:14.567ZEducationCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iRWcXFgPRPLLoE3QFbvsHshttps://video.igem.org/lazy-static/thumbnails/36ce0eee-a68a-4455-a3b7-413830b1b3f2.jpgNYU_Abu_Dhabi: Interview 1 (2022) [English]NYU Abu Dhabi iGEM team human practices interview video 1. Link to NYUAD iGEM wiki: https://2022.igem.wiki/nyu-abu-dhabi/index.html.https://static.igem.org/peertube/streaming-playlists/hls/90a4352c-8fcf-4f7f-97e5-d69791316694/54486469-d912-4211-8bbc-5c08671a7a10-master.m3u8https://video.igem.org/videos/embed/iRWcXFgPRPLLoE3QFbvsHs149032022-10-10T18:53:34.845ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6FsTHHaD9YQ98EgkUtNN73https://video.igem.org/lazy-static/thumbnails/d8d64264-46a5-42e3-99a9-8af19777df0f.jpgCornell: Extrusion Test Video (2022) [English]Cornell: Extrusion Test Video (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/2e0045df-0a42-4044-87dd-2fafd2a86676/6e9a1b40-214c-437b-93b6-5d46dcace2dc-master.m3u8https://video.igem.org/videos/embed/6FsTHHaD9YQ98EgkUtNN73540142022-10-10T18:58:51.156ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nqMhQs7kFBmc5hLdK9zB7shttps://video.igem.org/lazy-static/thumbnails/cea363c7-39e8-48cb-858b-7fa42d169671.jpgCornell: Printing iGEM logo (2022) [English]Cornell: Printing iGEM logo (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/ad85ac67-ae30-4d0b-ab0f-d9ff606803ea/a210f450-f22c-475f-a204-4debae35fdfe-master.m3u8https://video.igem.org/videos/embed/nqMhQs7kFBmc5hLdK9zB7s310102022-10-10T19:00:45.589ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wn6qidDeQBNbgsVvLR4nnahttps://video.igem.org/lazy-static/thumbnails/fb2ef9d2-48b1-4940-9077-c5637fc6b9cb.jpgCornell: 2nd Iteration of Casing (2022) [English]Cornell: 2nd Iteration of Casing (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/f5e41e55-85f4-403b-b840-e6c9ae2c0887/970ab2dc-b58e-49b3-9625-54d39046b126-master.m3u8https://video.igem.org/videos/embed/wn6qidDeQBNbgsVvLR4nna5092022-10-10T19:02:26.890ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iPtNTLULFGBYK7jUCRz9pyhttps://video.igem.org/lazy-static/thumbnails/6bf9ce89-253b-412a-b6de-ef046d9d85dc.jpgNYU_Abu_Dhabi: Interview 2 (2022) [English]NYU Abu Dhabi iGEM team human practices interview video 2. Link to NYUAD iGEM wiki: https://2022.igem.wiki/nyu-abu-dhabi/index.html.https://static.igem.org/peertube/streaming-playlists/hls/904c73b6-7bea-416f-90fa-602c438e962e/2d1e0a6e-63bc-4932-a12d-0a03d1a523b0-master.m3u8https://video.igem.org/videos/embed/iPtNTLULFGBYK7jUCRz9py183032022-10-10T19:04:39.921ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tgsKn6nWc34HxoL3DybDgphttps://video.igem.org/lazy-static/thumbnails/9093ed36-34e9-42b3-9505-74e329a38bb0.jpgCornell: Video of Handheld Extrusion (2022) [English]Cornell: Video of Handheld Extrusion (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/dccf625a-8fb5-46a9-a16a-28cbc6ca03e1/ca29cb7b-2fe3-4be0-8cab-62155938aa2e-master.m3u8https://video.igem.org/videos/embed/tgsKn6nWc34HxoL3DybDgp170112022-10-10T19:05:06.146ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5GsEEWLRG2mKU2196U9tWChttps://video.igem.org/lazy-static/thumbnails/a3249ea2-7f68-483a-973e-c405be9b92c1.jpgCornell: Smiley Face Drawing (2022) [English]Cornell: Smiley Face Drawing (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/260abd49-d8d0-41dc-b0c8-9f7a32ef0acc/e9fca0a4-f362-40dc-9f3e-75802d9160e9-master.m3u8https://video.igem.org/videos/embed/5GsEEWLRG2mKU2196U9tWC250182022-10-10T19:05:10.866ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6mVfW6Yi8i2481YawequEAhttps://video.igem.org/lazy-static/thumbnails/7968c04e-6afe-47a3-8abb-c6de49441120.jpgNYU_Abu_Dhabi: Interview 3 (2022) [English]Interview with an NYUAD student on her experiences with Alzheimer's Disease. NYU Abu Dhabi iGEM team human practices interview video 3. Link to NYUAD iGEM wiki: https://2022.igem.wiki/nyu-abu-dhabi/index.html.https://static.igem.org/peertube/streaming-playlists/hls/2b6963c8-7036-4802-bc30-2b787b42bd3e/d0d52d62-6267-4f31-9691-f90ddd63fcf9-master.m3u8https://video.igem.org/videos/embed/6mVfW6Yi8i2481YawequEA204012022-10-10T19:09:25.687ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cMqcrfqHtyeoQYtkXiq28zhttps://video.igem.org/lazy-static/thumbnails/6fa4c029-f5fb-4748-a4ec-8bd6f3579be5.jpgCU_Egypt: Alzheimer's awareness collaboration video (2022) [English]This video is an attempt to get global notice about Alzheimer's disease and us as a team working on it. The video is in collaboration with iGEMers from team Patras, Liu and Korhs. We thank them a lot ❤️ https://static.igem.org/peertube/streaming-playlists/hls/5f6be82d-387e-4d14-8f32-0f293113b04b/8513f9cf-e62b-49f7-a86f-806ec63f730a-master.m3u8https://video.igem.org/videos/embed/cMqcrfqHtyeoQYtkXiq28z146072022-10-10T19:32:41.700ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vEY5yJbsYaHLmLoWFAT8GHhttps://video.igem.org/lazy-static/thumbnails/8d014737-fb0b-4231-9fcb-5e8e65fde7c2.jpgNYU_Abu_Dhabi: Interview 4 (2022) [English]NYU Abu Dhabi iGEM team human practices interview video 4. Link to NYUAD iGEM wiki: https://2022.igem.wiki/nyu-abu-dhabi/index.html.https://static.igem.org/peertube/streaming-playlists/hls/f049d818-7048-489d-995e-d0421e61f72d/49be350e-d920-443f-bf9f-4c8de917e91a-master.m3u8https://video.igem.org/videos/embed/vEY5yJbsYaHLmLoWFAT8GH176042022-10-10T20:05:37.168ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6FdV5u94aZNyXfN3awv4Mzhttps://video.igem.org/lazy-static/thumbnails/049d8a5c-343c-40f2-9aa1-44c79d20036b.jpgIIT_Roorkee: iGEM Wiki Animation (2022)Our Team has developed a fast and sensitive kit that uses the CRISPR Cas12a system to detect the E7 oncogenegene of the for the Human Papillomavirus 16 which is responsible for most of the Cervical Cancer cases https://static.igem.org/peertube/streaming-playlists/hls/2df7a8d8-e200-4acd-b67a-66d92c434647/0e34b7f6-f64d-4773-aa9c-7cefdbd5f7e2-master.m3u8https://video.igem.org/videos/embed/6FdV5u94aZNyXfN3awv4Mz2501922022-10-10T20:15:18.742ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/t2i7k86c9f5UDmb8TjHmGXhttps://video.igem.org/lazy-static/thumbnails/471af2ac-45b5-4f32-aea2-b38df90a73c0.jpgIISER-Tirupati_India: The Accessibility Collab: iGEM (2022)iGEM is an international competition, in which all participating teams have one main passion in common; Synthetic biology. Our team created a series of informative videos about the competition, synthetic biology and the wet & dry lab. In collaboration with iGEM teams around the globe, we aim to overcome the language barrier, by asking 4 different questions and receiving an answer in their native language! The first video is about the iGEM competition. Watch it to find out what it represents, who can participate and many more interesting facts! Participants: iGEM Patras, iGEM IISERTVM, iGEM Heidelberg, IISER Mohali, TecCEM, ASU iGEM, HKUST iGEM.https://static.igem.org/peertube/streaming-playlists/hls/dad5080e-3e46-4aa9-b847-eefcfc1af53f/cce09a55-b741-4470-a119-82c91d526f3c-master.m3u8https://video.igem.org/videos/embed/t2i7k86c9f5UDmb8TjHmGX485072022-10-10T20:32:32.827ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tdvoecx9mxoD4D5az3Uc8qhttps://video.igem.org/lazy-static/thumbnails/f0ec2e25-0821-4662-9cdb-fd5a68d6a749.jpgIISER-Tirupati_India: The Accessibility Collab: Synthetic Biology (2022)iGEM is an international competition, in which all participating teams have one main passion in common; Synthetic biology. Our team created a series of informative videos about the competition, synthetic biology and the wet & dry lab. In collaboration with iGEM teams around the globe, we aim to overcome the language barrier, by asking 4 different questions and receiving an answer in their native language! The second video is about SynBio. Watch it to find out about micro-organisms, the applications of Synthetic biology and more! Participants: iGEM Patras, iGEM IISERTVM, iGEM Heidelberg, IISER Mohali, TecCEM, ASU iGEM, HKUST iGEM.https://static.igem.org/peertube/streaming-playlists/hls/dc65c6f1-66ea-4618-a447-866635c36f5a/13bd8a14-5173-4c48-823a-8defe5a74f86-master.m3u8https://video.igem.org/videos/embed/tdvoecx9mxoD4D5az3Uc8q752072022-10-10T20:46:24.653ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ikiUKQ5eyoN26QwET9kQUMhttps://video.igem.org/lazy-static/thumbnails/5a5a370d-6849-47e7-ac99-c788603e1a1b.jpgIISER-Tirupati_India: The Accessibility Collab: Wetlab (2022)iGEM is an international competition, in which all participating teams have one main passion in common; Synthetic biology. Our team created a series of informative videos about the competition, synthetic biology and the wet & dry lab. In collaboration with iGEM teams around the globe, we aim to overcome the language barrier, by asking 4 different questions and receiving an answer in their native language! The third video is about the Wet lab. Watch it to find out about its purpose and how it works! Participants: iGEM Patras, iGEM IISERTVM, iGEM Heidelberg, IISER Mohali, TecCEM, ASU iGEM, HKUST iGEM.https://static.igem.org/peertube/streaming-playlists/hls/8c5d86a9-4f4d-41c9-afb8-36ec87ebd98d/36723bd3-e1f0-4519-94a8-a01e7587edbc-master.m3u8https://video.igem.org/videos/embed/ikiUKQ5eyoN26QwET9kQUM478092022-10-10T20:48:05.672ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dfqCXg8HuFqkzddCe25k49https://video.igem.org/lazy-static/thumbnails/46056a37-06bf-44b7-8203-0e29b01e5bd2.jpgIISER-Tirupati_India: The Accessibility Collab: Drylab (2022)iGEM is an international competition, in which all participating teams have one main passion in common; Synthetic biology. Our team created a series of informative videos about the competition, synthetic biology and the wet & dry lab. In collaboration with iGEM teams around the globe, we aim to overcome the language barrier, by asking 4 different questions and receiving an answer in their native language! The fourth video is about the Dry lab. Watch it to find out about programming and its applications to science! Participants: iGEM Patras, iGEM IISERTVM, iGEM Heidelberg, IISER Mohali, TecCEM, ASU iGEM, HKUST iGEM.https://static.igem.org/peertube/streaming-playlists/hls/63314286-5a5c-4937-883a-888332648a32/3fd3e720-0e0f-46b4-8c79-b1554d31111c-master.m3u8https://video.igem.org/videos/embed/dfqCXg8HuFqkzddCe25k49481052022-10-10T20:55:18.276ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bxbpYRRJejK67ee6Yjqzt4https://video.igem.org/lazy-static/thumbnails/bea1c009-6277-4127-90e5-77c04c90dd11.jpgUAM: interview to dr Luis Daniel (2022) [Spanish]An interview to Dr. Luis Daniel https://static.igem.org/peertube/streaming-playlists/hls/5555dc69-c662-4c20-a191-d568b6c5ae65/0e718459-581c-47fb-ada0-2c9ca079339b-master.m3u8https://video.igem.org/videos/embed/bxbpYRRJejK67ee6Yjqzt43789052022-10-10T21:25:43.326ZinterviewexpertsYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kY4F6PGi9Zh3rVVBJKShGxhttps://video.igem.org/lazy-static/thumbnails/b12e031f-c0f8-44c3-83ae-23836fd332c1.jpgEPFL: Project Snapchots 2.0 (2022) [English]Some snapshots of our project, illustrating our work. Check out our website for more info: https://2022.igem.wiki/epfl/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/a1b18cc8-5504-4006-a68b-d2cdeac7f36f/05ae57a9-ca1e-4a62-9547-f92ab68ceb25-master.m3u8https://video.igem.org/videos/embed/kY4F6PGi9Zh3rVVBJKShGx22032022-10-10T21:08:50.582ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hcBy2XyyY5icZoPUy89reahttps://video.igem.org/lazy-static/thumbnails/3ccd61ed-2db2-4c68-a2a1-0dfff3ed1cf0.jpgEPFL: Animation Aerogel 1.0 (2022) [English]Animations of our aerogel to illustrate modeling work. Check out our website for more info: https://2022.igem.wiki/epfl/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/83314f56-b80b-499d-a642-e9170cc692af/60d1de4b-2713-438d-82ce-7bf8b9ae4205-master.m3u8https://video.igem.org/videos/embed/hcBy2XyyY5icZoPUy89rea20022022-10-10T21:10:44.436ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/npH8vLTCkxveBJnx1aE1dKhttps://video.igem.org/lazy-static/thumbnails/af53d1f6-da68-4ae8-91f5-eba9e3e9105d.jpgUAM: interview to Dr. Marcelo Acosta (2022) [Spanish]interview to Dr. Marcelo Acostahttps://static.igem.org/peertube/streaming-playlists/hls/ad5f5d94-a963-45cd-b68d-a4fa2e261ca3/33c7b5c5-cdc8-4c4b-baab-5a31032b8853-master.m3u8https://video.igem.org/videos/embed/npH8vLTCkxveBJnx1aE1dK2040032022-10-10T21:46:52.183ZscienceinterviewexpertsYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sWe19HzzDrVwexLJ2UbAZFhttps://video.igem.org/lazy-static/thumbnails/37dabd92-9d76-456e-a7bf-ba4b1381d59e.jpgEPFL: Animation Aerogel 2.0 (2022) [English]Animations of our aerogel to illustrate modeling work. Check out our website for more info: https://2022.igem.wiki/epfl/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/da1fc828-b712-4c76-a2e6-60b79be023c9/a1d1afa5-c9bf-42b8-9ed1-20faf339b809-master.m3u8https://video.igem.org/videos/embed/sWe19HzzDrVwexLJ2UbAZF20002022-10-10T21:12:34.873ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ivW8Byxevj6x7LELfcgX1ahttps://video.igem.org/lazy-static/thumbnails/b1ee0b02-2ff0-4080-8c7c-d2b93a9dcc5c.jpgIISER-Tirupati_India: Ethics in Synbio Podcast: Interview 1 (2022) [English]IISER-Tirupati_India: Ethics in Synbio Podcast: Interview 1 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/8dd9493f-74ac-4be8-966d-2d13cb7de78d/3f7d8a9f-db4e-4e93-b322-1689293fe00f-master.m3u8https://video.igem.org/videos/embed/ivW8Byxevj6x7LELfcgX1a551062022-10-10T21:20:25.385ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/gA3yZJHRvuR8mwBW7cU9nbhttps://video.igem.org/lazy-static/thumbnails/87794657-3682-44dd-a225-119e0ac6979e.jpgUAM: Coleopteran Map (2022) [English]Coleopteran mapshttps://static.igem.org/peertube/streaming-playlists/hls/7e39f382-af0a-4cf3-a3d7-07173c677a7c/af408f2f-1bb5-4b0b-b840-6630e3b24ce0-master.m3u8https://video.igem.org/videos/embed/gA3yZJHRvuR8mwBW7cU9nb520122022-10-10T21:50:07.117ZcoleopteranMexicomapYESiGEM 2022 TeamsNOhttps://video.igem.org/w/t7WtPZg4EqaPtTmZVEMv8Whttps://video.igem.org/lazy-static/thumbnails/c3fcc18b-3004-4257-8f29-95cabba83996.jpgThessaloniki_Meta: project (2022) [English]Thessaloniki_Meta: project (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/db9ec7e2-6747-4f1e-9668-f1a6bc780da8/e220cd4a-bda2-4c66-8bac-8347f21d1b79-master.m3u8https://video.igem.org/videos/embed/t7WtPZg4EqaPtTmZVEMv8W2901672022-10-10T21:25:45.101ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xjkhPz7FVdTfvLW3bRY1yXhttps://video.igem.org/lazy-static/thumbnails/47df7577-e475-4dff-9678-f0faac58398b.jpgThessaloniki_Meta: pacman (2022) [English]Thessaloniki_Meta: pacman (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/fd9a92ff-3360-4714-9008-07dee34e4a07/f5c739f6-54ca-4f66-9b15-ae8a1be22688-master.m3u8https://video.igem.org/videos/embed/xjkhPz7FVdTfvLW3bRY1yX300872022-10-10T21:25:46.905ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/byB1QDsA6dzGtsGGupDAUEhttps://video.igem.org/lazy-static/thumbnails/fa9a3db2-3eb7-4209-a581-b8acb70adea8.jpgUAM: Interview to Dr Gavino (2022) [Spanish] Interview to Dr Gavinohttps://static.igem.org/peertube/streaming-playlists/hls/5588c402-d159-403d-a29b-7ee280a85a6e/f0aa575c-0ea3-4378-ad96-c09f655cd8c6-master.m3u8https://video.igem.org/videos/embed/byB1QDsA6dzGtsGGupDAUE1470022022-10-10T22:04:38.482ZinterviewExpertsYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6d98mZZ2emavt8ZiVLmrKMhttps://video.igem.org/lazy-static/thumbnails/22c3275a-ce77-43a3-9477-567d9c28e059.jpgIISER-Tirupati_India: Ethics in Synbio Podcast: Interview 2 (2022) [English]IISER-Tirupati_India: Ethics in Synbio Podcast: Interview 2 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/2a2fa07f-20dd-4028-bf54-71d71dd4982f/2916681e-338e-4509-8014-1371133e2f29-master.m3u8https://video.igem.org/videos/embed/6d98mZZ2emavt8ZiVLmrKM1021002022-10-10T21:43:38.840ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4jobUyz3gwwfvvuLpCUKYFhttps://video.igem.org/lazy-static/thumbnails/2b802ded-31fd-4193-90e9-fbaceb3dd92b.jpgIISER-Tirupati_India: Ethics in Synbio Podcast: Interview 3 (2022) [English]IISER-Tirupati_India: Ethics in Synbio Podcast: Interview 3 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/1adc7a4a-d834-4372-945f-9a01006769a3/a232f0d2-f64e-4892-b05c-038042c63396-master.m3u8https://video.igem.org/videos/embed/4jobUyz3gwwfvvuLpCUKYF1609002022-10-10T21:44:12.754ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/a4wjd7unLxN7ArNYk2CHdJhttps://video.igem.org/lazy-static/thumbnails/c84b0f08-82c4-42fb-9a7d-2bfca47529f4.jpgIISER-Tirupati_India: Ethics in Synbio Podcast: Interview 4 (2022) [English]IISER-Tirupati_India: Ethics in Synbio Podcast: Interview 4 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/4960292f-9787-4749-9748-8e7123389936/01ce94cc-e75e-4fc9-bf60-b4eb1d80ed8d-master.m3u8https://video.igem.org/videos/embed/a4wjd7unLxN7ArNYk2CHdJ887022022-10-10T21:49:59.247ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kf2PyjoBagJE1PY5g8kr8Vhttps://video.igem.org/lazy-static/thumbnails/dc40c5b5-0ec2-4c31-bb7e-05871da77436.jpgSZU-China: Intelligent Farm-720p (2022) [English]This video is for display of our app-Intelligent Farm, which is expected used by our customers. This video will be placed in Software. Wiki link: https://2022.igem.wiki/szu-china/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/9bd32b3d-583b-427b-b822-73888f436717/65e86811-50cf-44ca-89b3-88bdcdb97791-master.m3u8https://video.igem.org/videos/embed/kf2PyjoBagJE1PY5g8kr8V3500192022-10-10T21:49:39.595ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5b6PHtgwdmjL1y2czhst1Chttps://video.igem.org/lazy-static/thumbnails/a2e214ce-a657-4250-bf61-c43f94df72cd.jpgIISER-Tirupati_India: COME WORK WITH US! (2022) [English]Accessibility remains an unsolved issue in appreciating the beauty of Science. How exciting it would be to get an opportunity to explore the biolabs around the globe! We collaborated with 5 teams for a global lab tour video, covering the lab experience beyond the oceans that separate us. Brought to you by IISER Tirupati, IISER TVM, iGEM Patras, Tec CEM, ABOA Finland and IISER Mohali https://static.igem.org/peertube/streaming-playlists/hls/21cd94a8-0ea9-4e94-97e8-c1c40b93b4e0/65f1b932-1c08-4a2d-8d92-19627a7f00d2-master.m3u8https://video.igem.org/videos/embed/5b6PHtgwdmjL1y2czhst1C2330132022-10-10T22:02:35.571ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cqr3doLtYBFehbReKNf7KYhttps://video.igem.org/lazy-static/thumbnails/369b811c-0042-4348-b9bc-5f9ea7dc2315.jpgQueens_Canada: bstfusion (2022) [English]Bst fusion GROMACShttps://static.igem.org/peertube/streaming-playlists/hls/5c7dce59-d661-47f9-bb95-4ab621a2fb7e/3948a77b-593b-4cd5-b310-37e747280b77-master.m3u8https://video.igem.org/videos/embed/cqr3doLtYBFehbReKNf7KY30112022-10-10T22:04:40.661ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tDScv1g8axDWi53euSFqBLhttps://video.igem.org/lazy-static/thumbnails/60dd2122-8d0d-41d6-b707-44865795b6cf.jpgQueens_Canada: bstorgfusion (2022) [English]Bst org fusion GROMACShttps://static.igem.org/peertube/streaming-playlists/hls/dff032f8-08a3-4dbd-bc30-3b20d55b1e72/8aabcf83-b627-43d0-8d2e-5f01ea5fd2d7-master.m3u8https://video.igem.org/videos/embed/tDScv1g8axDWi53euSFqBL3092022-10-10T22:05:17.820ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1HcdyTzb1wmkChhuLBPiqjhttps://video.igem.org/lazy-static/thumbnails/dab3dc55-f4bd-4145-bc87-77fda025bf2d.jpgQueens_Canada: bstpointmut (2022) [English]Bst point mutations GROMACShttps://static.igem.org/peertube/streaming-playlists/hls/05c06837-162b-4634-adc8-29efd2abedee/3ae8a27b-0303-4a5b-a18c-7e7d9d3d0b65-master.m3u8https://video.igem.org/videos/embed/1HcdyTzb1wmkChhuLBPiqj40102022-10-10T22:06:12.107ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wzRVjLDdj5mi1Twznu2Uymhttps://video.igem.org/lazy-static/thumbnails/f9402e8b-0f58-477c-aa87-a65de061dab2.jpgQueens_Canada: sac7e (2022) [English]Sac7e GROMACShttps://static.igem.org/peertube/streaming-playlists/hls/f7ac77d6-75a9-42bb-953f-9c0f220f00ec/2d8e8c92-2843-44a3-ac85-3c6fa38d9937-master.m3u8https://video.igem.org/videos/embed/wzRVjLDdj5mi1Twznu2Uym40132022-10-10T22:07:00.035ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8vrAVf1zXHHcWN4rADC7DDhttps://video.igem.org/lazy-static/thumbnails/feccd823-1e7e-49a4-83e9-838a7b4ec2d7.jpgUAM: team (2022) [English]Members of iGEM UAM https://static.igem.org/peertube/streaming-playlists/hls/3ccc5158-f832-4d22-9e68-300ea2a6b14f/87d8304a-aa5c-469f-aff4-17cb5eaac4af-master.m3u8https://video.igem.org/videos/embed/8vrAVf1zXHHcWN4rADC7DD140992022-10-10T22:33:46.006ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hf1GWKHouHvR9nKAECk3p7https://video.igem.org/lazy-static/thumbnails/36a54988-2a35-4f9d-9894-3c1cfba8c332.jpgCornell: Printing iGEM Logo (2022) [English]Cornell: Printing iGEM Logo (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/838710fe-a564-4a4c-ade5-30243ca7b57c/435eedaa-b211-4ba4-a82f-4a89f856a167-master.m3u8https://video.igem.org/videos/embed/hf1GWKHouHvR9nKAECk3p7310102022-10-10T22:49:29.604ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qATPgtPQPbaeDrvAb64eo1https://video.igem.org/lazy-static/thumbnails/c18a9c27-8d85-4642-89c4-c2daf72c4f13.jpgDuesseldorf: header video (2022) [English]header video for our wikihttps://static.igem.org/peertube/streaming-playlists/hls/c73a8c51-4446-4859-9a23-9755af6613d8/1a2e83a2-c193-4a1b-b4e9-155e9358d5cf-master.m3u8https://video.igem.org/videos/embed/qATPgtPQPbaeDrvAb64eo110016132022-10-10T23:59:56.482ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wMiW6SL7jyS3HYWDVyjTPzhttps://video.igem.org/lazy-static/thumbnails/ee3abe9c-918c-442c-abcb-498ba7afae6d.jpgCornell: Final Bioreactor Video (2022) [English]Cornell: Final Bioreactor Video (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/f945ae50-ae8a-449f-8623-771115721423/ed2ead13-a633-4219-b4c7-cd2d291036d1-master.m3u8https://video.igem.org/videos/embed/wMiW6SL7jyS3HYWDVyjTPz70242022-10-11T00:02:30.144ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/n4NoJ5AFpxkizy94ukLNoBhttps://video.igem.org/lazy-static/thumbnails/3ad72fc3-8cae-4bf8-bfc9-e042894ab0bc.jpgCalgary: JulyGEM - A Day in the Life (2022) [English]A Day in the Life of iGEM Calgary, played during JulyGEM 2022. https://2022.igem.wiki/calgary/https://static.igem.org/peertube/streaming-playlists/hls/aa97bbaf-549d-4469-bcfd-6a1b660aa2e7/1234fefd-9bd8-4cf2-937b-f2e2fc5d6b03-master.m3u8https://video.igem.org/videos/embed/n4NoJ5AFpxkizy94ukLNoB2920142022-10-11T00:22:05.660ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vqE53fEPC6qUBHSMmrfDA4https://video.igem.org/lazy-static/thumbnails/da04c970-5997-413e-a2d5-74686549d155.jpgCalgary: JulyGEM - Couch Confessional (2022) [English]The couch confessional video from iGEM Calgary's 2022 JulyGEM event. https://2022.igem.wiki/calgary/https://static.igem.org/peertube/streaming-playlists/hls/ee4a5536-b494-4c76-b2f4-416f79b0d06b/06d42b14-5ac7-47fe-bda2-712ae5fc87a0-master.m3u8https://video.igem.org/videos/embed/vqE53fEPC6qUBHSMmrfDA43810122022-10-11T03:30:32.730ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vECV62hWTBAVam6GRGatYJhttps://video.igem.org/lazy-static/thumbnails/2371bbf4-548a-42fc-b5b4-f8b1f15955bd.jpgLambert_GA: microQVid (2022) [English]Video describing how to use micro-q. Video recorded by Madhav Gulati & Vineeth Sendilraj (Lambert_GA). https://2022.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/f03e08c4-ce6f-41c0-a2a3-42d7707589ae/f937a1fd-c000-46f5-a165-07f55e254e9b-master.m3u8https://video.igem.org/videos/embed/vECV62hWTBAVam6GRGatYJ46092022-10-11T02:38:39.136ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/s1BWvXbvfjKdjvmvwyiE9Rhttps://video.igem.org/lazy-static/thumbnails/5fbf8251-6f4c-4a45-8ea4-57f2644a8a67.jpgIISER-Tirupati_India: Menstrual Hygiene Day Awareness (2022) [English]IISER-Tirupati_India: Menstrual Hygiene Day Awareness (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/d2a3c101-c89e-4c48-bba4-660d71177d01/bc8c7eae-fb68-4e5e-aa7e-b2b4233ee682-master.m3u8https://video.igem.org/videos/embed/s1BWvXbvfjKdjvmvwyiE9R220122022-10-11T02:55:39.851ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dayMMAReVBZj3RiWr28mwthttps://video.igem.org/lazy-static/thumbnails/9a2ac4f5-6760-4204-bc86-f2d0239e80e5.jpgTJUSLS_China: Visit the company (2022) [English]The video we visit the companyhttps://static.igem.org/peertube/streaming-playlists/hls/628390a6-e24a-4de5-b444-0f81f7e6777f/c0921c49-5868-48c3-bd3d-79b8c9984317-master.m3u8https://video.igem.org/videos/embed/dayMMAReVBZj3RiWr28mwt272032022-10-11T03:12:40.173ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mgcBayW88yEb72Az3uoJJZhttps://video.igem.org/lazy-static/thumbnails/1c33a75c-1c02-4a00-936b-499a521749eb.jpgIISER-Tirupati_India: A day in the lab (2022)IISER-Tirupati_India: A day in the lab (2022)https://static.igem.org/peertube/streaming-playlists/hls/a4161516-f6a1-4872-96df-8a5db5a69255/91f8e897-c7b0-4266-8389-094883d19c98-master.m3u8https://video.igem.org/videos/embed/mgcBayW88yEb72Az3uoJJZ489042022-10-11T03:17:05.704ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7PYtPJSJiER7dmL3fvzm8Khttps://video.igem.org/lazy-static/thumbnails/1f4505bf-522e-43c5-98db-f4c4a3183c5e.jpgIISER-Tirupati_India: APTA-LITION DAY 1 (2022) [English]IISER-Tirupati_India: APTA-LITION DAY 1 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/37499893-e9a4-4734-95f8-83ce0a73b7c9/23440f3d-10f4-4391-bf5f-46e463f5209a-master.m3u8https://video.igem.org/videos/embed/7PYtPJSJiER7dmL3fvzm8K8090082022-10-11T04:08:55.283ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8JFny821PiTrFq3PWN2DsGhttps://video.igem.org/lazy-static/thumbnails/8eb0622e-0cc8-45b7-b35c-98fbc7d60180.jpgIISER-Tirupati_India: APTA-LITION DAY 2 (2022) [English]IISER-Tirupati_India: APTA-LITION DAY 2 (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3ea578fb-15c0-4908-b0c2-faa48eef43c8/f5412c83-14d5-41b7-a1b0-7a9b7b8167fc-master.m3u8https://video.igem.org/videos/embed/8JFny821PiTrFq3PWN2DsG5625002022-10-11T05:29:33.348ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vCQsBYasYYdcicdZbPRKR5https://video.igem.org/lazy-static/thumbnails/b6e6dbce-c1b3-4462-a001-c45204f837eb.jpgWashington: Diagnostics Podcast (2022) [English]A discussion about healthcare access in the United States and Australia and how the rules in both countries effect our teams synthetic biology projects on diagnostics and the broader use of the technologies behind them. Credits: Chloe Lagadon, Owen Knight, Lukian Adams, Jessica Zhang and Sylvie Nolfhttps://static.igem.org/peertube/streaming-playlists/hls/effda927-8dbc-4cbe-97e8-83f2a456f342/37e80b6d-21fe-43ec-8d7b-b32914873cf2-master.m3u8https://video.igem.org/videos/embed/vCQsBYasYYdcicdZbPRKR52619042022-10-11T03:59:33.403ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aoomTj5NytFX35UdJnTQZ1https://video.igem.org/lazy-static/thumbnails/2685f1a4-4500-448a-a608-5446f68d5299.jpgGreatBay_SCIE: Documentary Episode 2 (2022) [English]According to Mr. Wang, the cofounder of a textile recycling company and an important person we encountered during our human practices journey, there have long been biased stereotypes among the public regarding textile recycling. To effectively eliminate such deep-rooted stereotypes, we have unveiled the mysterious process of textile recycling told by Mr. Wang, and discussed the moral issue when it comes to the dilemmatic nature of clothes recycling bin – beneficent donations versus commercialized recycling chain.https://static.igem.org/peertube/streaming-playlists/hls/4c026409-74d7-4b25-810c-546d8952c132/45539b63-298a-468c-ad03-59bda3b7b6f8-master.m3u8https://video.igem.org/videos/embed/aoomTj5NytFX35UdJnTQZ16170292022-10-11T04:59:51.511ZHuman PracticesTextile RecyclingYESiGEM 2022 TeamsNOhttps://video.igem.org/w/keefcEvBsD4YEDoQL62prXhttps://video.igem.org/lazy-static/thumbnails/b2653301-90c0-4758-b5ad-28473ba65a8c.jpgUCAS-China: Hardware (2022) [English]Hardware demonstration video of 2022 team UCAS-China Wiki link: https://2022.igem.wiki/ucas-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/9bb6774a-3cdf-45b2-9d00-b149376a2315/837c5dbd-835c-4e1d-94ba-287700a7c166-master.m3u8https://video.igem.org/videos/embed/keefcEvBsD4YEDoQL62prX590142022-10-11T05:30:06.423ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1MHvc4ctHZicszZeg4w1dvhttps://video.igem.org/lazy-static/thumbnails/0cf767ee-aaa0-47fe-969d-d59ac77f18d8.jpgUPenn: Split TEV Dimerization Visualization (2022)Heterodimerization of split TEV after light exposure. https://2022.igem.wiki/upenn/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/06620c05-8090-49c1-a4ea-21ec5094afd5/17f1b297-553b-4412-be97-a98b4beed760-master.m3u8https://video.igem.org/videos/embed/1MHvc4ctHZicszZeg4w1dv30832022-10-11T05:29:35.035ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5Np3dSivMMCNvuADYdLTe2https://video.igem.org/lazy-static/thumbnails/928f49a4-a3de-42ce-b09f-5a667060d4be.jpgUCAS-China: Software - FitYo (2022) [English]Software demonstration video of 2022 team UCAS-China This video shows how to use our app to control the meal replacement machine. Hardware Wiki link: https://2022.igem.wiki/ucas-china/hardware Software Wiki link: https://2022.igem.wiki/ucas-china/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/26def746-a2a4-46f7-978f-4c0c7e98d9ff/08b71eca-ad8d-4a77-9663-dd3965ea7fa2-master.m3u8https://video.igem.org/videos/embed/5Np3dSivMMCNvuADYdLTe2120092022-10-11T05:30:34.350ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1h3RuBeny6j7Y7hMVS72qdhttps://video.igem.org/lazy-static/thumbnails/263f921d-c8e1-4727-8c35-29ff3f376d48.jpgTongji_Software: software (2022)This is our video for testing our tool.https://static.igem.org/peertube/streaming-playlists/hls/023da8a3-b67a-4217-8c3d-ce2381c86610/5e3a1377-599a-4008-8c0f-0a35a6e04d6c-master.m3u8https://video.igem.org/videos/embed/1h3RuBeny6j7Y7hMVS72qd4820342022-10-11T06:23:18.093ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2PfL668tSTEPh4F1cs5gP1https://video.igem.org/lazy-static/thumbnails/11e95794-93b9-44b4-8da9-387fdbc9de73.jpgGreatBay_SCIE: Documentary Episode 1 (2022) [English]An Underlying Nightmare Behind Fashion: Integrating feedback we received from interviews on the street, experts in the fashion industry and the textile recycling industry, we vividly revealed the underlying nightmare behind fashion, raising public awareness of the problem of textile waste.https://static.igem.org/peertube/streaming-playlists/hls/0eb2312d-d085-4848-bea7-08533224d262/3b2d1d90-8d28-45ac-879d-96492bbf0704-master.m3u8https://video.igem.org/videos/embed/2PfL668tSTEPh4F1cs5gP13460272022-10-11T06:34:52.851ZFast FashionPollutionYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wXzbS3UYLuhuCRAYjzctujhttps://video.igem.org/lazy-static/thumbnails/38a184e3-396d-4b03-a007-2593847b2eb8.jpgMontpellier: Interview_with_Yannick (2022) [French]Interview with Yannick Desplats (oyster farmer). Subtitles in English. https://static.igem.org/peertube/streaming-playlists/hls/fab48500-e753-4f51-969c-6c607da6e93e/1d42ddd9-8a22-4f18-9c5b-e2305f474901-master.m3u8https://video.igem.org/videos/embed/wXzbS3UYLuhuCRAYjzctuj630272022-10-11T06:17:29.254ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8Zf7WhN9TKCnh4GAskqqoDhttps://video.igem.org/lazy-static/thumbnails/227b03e1-e14c-40db-9d9e-4448081455d8.jpgSZU-China: Vedio Functioning Process of 3mm TACE2.0 (2022)This video is a display of our porduct-TACE2.0. This video is placed in Products. Wiki link: https://2022.igem.wiki/szu-china/producthttps://static.igem.org/peertube/streaming-playlists/hls/40ae1127-daa0-4eb8-b56e-e7b796f5de31/84bd7f8e-5c92-490a-83f6-88fafe8a93cb-master.m3u8https://video.igem.org/videos/embed/8Zf7WhN9TKCnh4GAskqqoD280302022-10-11T07:18:54.980ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jqg9TAmjdpNQC5XdHjBpHjhttps://video.igem.org/lazy-static/thumbnails/96c7f9b6-4d99-406d-98a9-f939093b4f7a.jpgSZU-China: Video 1. Field application of TACE (2022)This video filmed in the lab shows our field application of TACE-our product. This video is placed in Design. wiki link: https://2022.igem.wiki/szu-china/designhttps://static.igem.org/peertube/streaming-playlists/hls/9527af55-21f6-4b2f-9c49-6525bcbba550/06467a63-b258-4a1a-8e42-01b178a6b3a3-master.m3u8https://video.igem.org/videos/embed/jqg9TAmjdpNQC5XdHjBpHj56062022-10-11T07:29:56.695ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6RpKBdoLo6r2ZM8hGX7GFehttps://video.igem.org/lazy-static/thumbnails/620eadec-fc63-485a-8c0b-f92cc1e064f9.jpgLINKS_China: game introduction (2022) [English]This video explains and demonstrates how to play "Crazy Messy Yeast Engineering"-the completely original card game about synthetic biology designed by our team this year. https://2022.igem.wiki/links-china/https://static.igem.org/peertube/streaming-playlists/hls/2f63c68f-6992-4907-b8b7-cf0e589fa363/32aed9f5-5927-489e-9a54-c30a2bc30086-master.m3u8https://video.igem.org/videos/embed/6RpKBdoLo6r2ZM8hGX7GFe2450252022-10-11T08:33:26.247ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5NDEiRWRo4FSQZ6vaQdHarhttps://video.igem.org/lazy-static/thumbnails/1dc936f3-2fe8-4afb-bcd5-4c2e56b4af24.jpgGreatBay_SCIE: Documentary Episode 3 (2022) [English]Hardware Design: We did not stop at obtaining positive experiment results. To make our unique solution FabRevivo more realistic and more reliable, we have designed a well-considered hardware with the help of LINKS_China.https://static.igem.org/peertube/streaming-playlists/hls/26e7fa26-eea2-4bab-b87c-74b1ab9bdf27/c98cc855-2902-4410-9391-c448cfcc8664-master.m3u8https://video.igem.org/videos/embed/5NDEiRWRo4FSQZ6vaQdHar2840192022-10-11T08:55:39.068ZHardwareTextile RecyclingYESiGEM 2022 TeamsNOhttps://video.igem.org/w/arKB8ZDW43mjxAx1ivU2urhttps://video.igem.org/lazy-static/thumbnails/e35688f5-af11-4ff7-a915-303afc34c91b.jpgUSTC: Optimized Lipid Nanoparticle Pharmaceutical Drug Delivery System through Borneol Modificati...website:https://2022.igem.wiki/ustc/ Lipid nanoparticle (LNP) is a novel pharmaceutical drug delivery system and a novel pharmaceutical formulation. But this promising drug delivery system has no effect on many cerebral diseases due to the difficulty in drug delivery across the blood–brain barrier (BBB). In our project, we developed Bor-NP, a novel nanoparticle modified by borneol, which has been proved with the ability to enhance other drugs’ transport across the BBB. At the same time, we tried to establish a system which can mass-produce this kind of Bor-NP. We took advantage of Yarrowia lipolytica to boost the borneol production, and then conjugate these borneol to the succinimide group of N-hydroxy succinimide–poly(ethyleneglycol)–poly(lactic-co-glycolic acid) (NHS-PEG-PLGA) to produce the Bor-NP. In a conclusion, our project focused on producing nanoparticles to get through the BBB and establishing an effective bio-manufacturing system to produce this kind of nanoparticle to lower the cost and achieve better therapeutic effect. https://static.igem.org/peertube/streaming-playlists/hls/4c7ab719-95a7-4eb9-84a3-d5abd48a83a5/03ef69c6-8aed-4247-ad75-c32c3848870e-master.m3u8https://video.igem.org/videos/embed/arKB8ZDW43mjxAx1ivU2ur1200642022-10-11T08:48:05.175ZLNPsUSTCYarrowia lipolyticaYESiGEM 2022 TeamsNOhttps://video.igem.org/w/d2RgBjHPmqmAacbGQ6JDTFhttps://video.igem.org/lazy-static/thumbnails/d5ff3fe6-7934-44ec-ba9c-5d7d1b79ee9f.jpgBNUZH-China: Demonstration video of Hardware function (2022)BNUZH-China丨Demonstration video of Hardware functionhttps://static.igem.org/peertube/streaming-playlists/hls/616fc557-5f92-4da9-87cb-eae5de776bc9/07516157-a8a3-4e00-9e19-e446b9c04780-master.m3u8https://video.igem.org/videos/embed/d2RgBjHPmqmAacbGQ6JDTF700272022-10-11T08:54:40.179ZHardwareYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cT7PJwCUSYUVcJwJn82ppNhttps://video.igem.org/lazy-static/thumbnails/e1f5cf93-e0bb-4c68-a1e3-db3aea3346e3.jpgWarwick: index1 (2022)Warwick: index1 (2022)https://static.igem.org/peertube/streaming-playlists/hls/6037a98f-7124-4e05-89de-a8016b650cd8/da70b1a7-ea57-4046-ae73-52f39bacc3b3-master.m3u8https://video.igem.org/videos/embed/cT7PJwCUSYUVcJwJn82ppN6022022-10-11T09:54:51.425ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/u14v1jkb7wjk4JqKaJ7shdhttps://video.igem.org/lazy-static/thumbnails/3899bfbd-6541-4e1c-8b62-88e78c1df6d9.jpgWarwick: index2 (2022)Warwick: index2 (2022)https://static.igem.org/peertube/streaming-playlists/hls/e2c20a1b-f769-436a-b886-fde52ccc5a44/3cf323be-5dc9-407b-a99d-16073f236dae-master.m3u8https://video.igem.org/videos/embed/u14v1jkb7wjk4JqKaJ7shd1002022-10-11T09:56:40.242ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/29bXSMzKrKPP6VM7j5wbGZhttps://video.igem.org/lazy-static/thumbnails/5b332d44-a3fb-4aac-bb20-b7b9655f14b4.jpgDUT_China: home (2022) [English]Wiki link: https://2022.igem.wiki/dut-china/https://static.igem.org/peertube/streaming-playlists/hls/093dd861-8cdb-4dd3-8910-93a00962efe1/8db75cf5-d1db-44dc-82d9-516479e9bd05-master.m3u8https://video.igem.org/videos/embed/29bXSMzKrKPP6VM7j5wbGZ90402022-10-11T10:24:13.148ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jFiH4KNzrSHQYkSCSErWwghttps://video.igem.org/lazy-static/thumbnails/952f36c9-4122-421e-842a-2bf025566c34.jpgICT-Mumbai: Education Talk in Kendriya Vidyalaya (2022) [English]As a part of our education initiative, on 20th August 2022, one of our team members, Ms. Peehu Joshi, had the great opportunity to present a talk on “Synthetic Biology” as a part of a one-day Educational Workshop conducted in Kendriya Vidyalaya Army Area, Pune. The Kendriya Vidyalaya is a chain of schools spread all over India and is one of the oldest organizations providing quality education to children under the Ministry of Education of India. The talk was conducted for 11th Standard Biology students and it covered basic questions and aspects of Synthetic Biology, like- What is SynBio? What progress has been done with the help of SynBio? How is it effective now? What are the various career options for someone interested in SynBio? The talk also gave an introduction about iGEM and how it encourages and recognizes students having an interest in the field of SynBio. The children were very thrilled and intrigued to know about Synthetic Biology and asked a lot of questions to understand the field better. At the end of the talk, there was a short quiz conducted (video attached) where the students participated quite actively! A lot of them came up to our team member, Ms. Peehu Joshi, and interacted personally to learn more about iGEM and SynBio. Our team would like to thank Mrs. Meena Joshi, Principal, Kendriya Vidyalaya Army Area, Pune for allowing us to present a talk in their school and adding value to the Education aspect of our iGEM Project. We also promised to mentor their high-school team whenever they decide to become a part of the iGEM family.https://static.igem.org/peertube/streaming-playlists/hls/97416a75-d4c9-48b2-b244-45d6de8edcfb/690d4f47-46f0-484a-8500-7924e4e79800-master.m3u8https://video.igem.org/videos/embed/jFiH4KNzrSHQYkSCSErWwg134032022-10-11T10:37:31.257ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qjLKhTEAHsx2ovHNnWTpD5https://video.igem.org/lazy-static/thumbnails/a5c985f9-6598-4d56-aa4b-cb652b1778c9.jpgIISER_Bhopal: Government School (2022)Government school studentshttps://static.igem.org/peertube/streaming-playlists/hls/c4fa4aa9-7e04-4c76-a799-65354094171a/a3347ee4-a61c-4d28-a46f-7cd2e1b076c1-master.m3u8https://video.igem.org/videos/embed/qjLKhTEAHsx2ovHNnWTpD56042022-10-11T10:54:27.007ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/a47da3c3HvWe4iGCWTv9fXhttps://video.igem.org/lazy-static/thumbnails/77bc7846-b524-4876-aa42-ff4033a34d61.jpgICT-Mumbai: Foldscope Workshop (2022) [English]On 18th September, 2022 we organised a Foldscope Workshop for the children of the helping staff of ICT, Mumbai. It was great to see them delightfully build their optical microscope to analyse samples like algae, butterfly, larvae, fungi, flowers and leaves. They surely developed an enhanced keenness in observing nature and it's intricate patterns around. At the end of the workshop, they not only took along their mini microscopes but also a thrill to embark on a scientific exploration of everything around them! Depending on the students’ levels of comfort, parts of the workshop were conducted simultaneously in 3 languages: Hindi, Marathi, and English. We were assisted by Ms. Sonali Kadam and her team with the workshop. We are highly grateful to them. Objective was to provide them with an opportunity to explore and we also made them have a look around our labs. This hopefully may have motivated them and generated excitement to pursue science. We also had an intention of having them analyse nature more carefully. When they saw algae and yeast being present on surfaces, we explained to them on how bacteria and infection can be transmitted even though they may not be able to see it with the naked eye. We accentuated good sanitary practices and thorough washing of hands before and after meals. We correlated these learnings with how sanitation practices and wearing of masks could help them be safer in pandemic situations. It is said that you truly learn a concept when you are able to teach it to someone else. We provided them with one extra Foldscope kit each to take home and teach a friend of theirs everything that they had learnt. It is convenient as well as deeply satisfying for us to make an impact in the lives of the underprivileged students of the helping staff of our university. They reside within the campus and we also have ample of facilities and resources available that can be used. We wish to pursue this achievable endeavour with all our heart and lo...https://static.igem.org/peertube/streaming-playlists/hls/49514e58-bc49-4c3d-ad45-30fec599e4fb/f147e461-9aae-4645-91a0-90c35444ba5a-master.m3u8https://video.igem.org/videos/embed/a47da3c3HvWe4iGCWTv9fX21042022-10-11T10:55:00.078ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sVHxTPxwj2N3prPkcg1nMPhttps://video.igem.org/lazy-static/thumbnails/98b453af-a22f-4ddb-9208-1192ef838d31.jpgICT-Mumbai: Sustainability (2022) [English]Inspired by iGEM to add a holistic nature to Sustainable Development in our project, we also recycled the plastics that had been used in the wet lab-eppendorfs, tips, and falcon tubes. We collected the plastic waste used by us and our co workers in the lab for 6 months. We intended to depolymerise these plastics by sterilizing them and making them into pellets. These pellets could then be used to make recycled plastics such as sheets, maybe shoe soles as well. Although the concept of depolymerizing and pelletizing plastics is a commonly practiced industrial process, integrating it at a lab scale and that too in the undergraduate level brings about a new perception in sustainable lab practices. We are extremely proud that we, independently as undergraduates could do this. We wish to inspire other undergraduates as well to take an effort to go beyond the limits for a greener and a sustainable tomorrow. https://static.igem.org/peertube/streaming-playlists/hls/da0da189-0abf-4cd6-8792-f5b4f52a2b65/2e1b4a70-2fa2-46c7-972d-d69ca2a67116-master.m3u8https://video.igem.org/videos/embed/sVHxTPxwj2N3prPkcg1nMP40112022-10-11T13:22:35.382ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/e6RVXqtpCfuFv6ZXKZmbPrhttps://video.igem.org/lazy-static/thumbnails/2961f8b8-65f0-4208-8ee3-eec82f600ebb.jpgEPFL: Project Snapchots 3.0 (2022) [English]Some snapshots of our project, illustrating our work. Check out our website for more info: https://2022.igem.wiki/epfl/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6a184ac3-d8ca-45cd-b4eb-5af18904c4f7/ef261b98-a2ff-4287-9dce-fff086e746bd-master.m3u8https://video.igem.org/videos/embed/e6RVXqtpCfuFv6ZXKZmbPr25032022-10-11T11:04:13.461ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wDShrgmJKHb3fgxzxDXQP9https://video.igem.org/lazy-static/thumbnails/5ca44d01-5d9d-4f59-abd7-53d742252bec.jpgUCopenhagen: Spinning video (2022) [English]We have successfully spun a fiber from our protein, and here is the video of the process. https://static.igem.org/peertube/streaming-playlists/hls/f83baae2-8598-41f4-8599-f05c0c1c3876/6dfd6514-fae5-472f-8a93-a64a35a07b51-master.m3u8https://video.igem.org/videos/embed/wDShrgmJKHb3fgxzxDXQP9290332022-10-11T11:09:12.903ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kCJzPkhfsnvTjA2SyuXUWfhttps://video.igem.org/lazy-static/thumbnails/e0fdec92-0eb7-4364-8eba-0891fa356325.jpgApt4UTI-IISER_BerhampurUrinary Tract Infection is the third most prevalent infectious disease worldwide. The lack of awareness regarding its symptoms has led to Chronic UTIs which cause recurrence, antibiotic resistance, and kidney infections. The current diagnostic methods include antibody-based assays which require cold-chain, technical expertise, and laboratory conditions. We, therefore, propose a novel, cost-effective, and point-of-care solution for the detection of UTI-causing bacteria using an aptamer-based strategy.https://static.igem.org/peertube/streaming-playlists/hls/9efea72a-390a-4352-a043-2d608bea74f2/938c54c0-85c1-4f3c-a7bf-9e92b6db473e-master.m3u8https://video.igem.org/videos/embed/kCJzPkhfsnvTjA2SyuXUWf1190702022-10-11T11:47:09.902ZAptamersUropathogenic BacteriaiGEM IISER_BerhampurUrinary Tract InfectionsYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xqSvGebouKB5684rZQVdVXhttps://video.igem.org/lazy-static/thumbnails/d7cba871-8710-4ae7-a675-d6472984076b.jpgSheffield: SZ Toolbox Demo (2022) [English]Join us for a live demonstration of syn-zeug — a modern toolbox for synthetic biology. See more on our GitHub page here: https://github.com/Sheffield-iGEM/syn-zeughttps://static.igem.org/peertube/streaming-playlists/hls/fe84472d-9fa2-4a33-9541-1ce9f0041491/936b1b0e-f374-413a-98d6-24e7378b653b-master.m3u8https://video.igem.org/videos/embed/xqSvGebouKB5684rZQVdVX6530162022-10-11T11:51:14.346ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/buTA2aLQy9et9xAzfvbfC5https://video.igem.org/lazy-static/thumbnails/c5b979df-5095-414f-bd3e-4cc4499d5057.jpgNUDT_CHINA: Homepage video (2022) [English]This is the starting video of our home page.https://static.igem.org/peertube/streaming-playlists/hls/550400e5-9b2c-4ec0-991a-460fa47ec584/6ae88cb2-4753-44eb-9dfd-1dc0549b0f68-master.m3u8https://video.igem.org/videos/embed/buTA2aLQy9et9xAzfvbfC51501082022-10-11T12:29:05.835ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9Er8Q6qtkTMfvKT9KAGQYZhttps://video.igem.org/lazy-static/thumbnails/a0c6632c-0884-4821-b1e8-db235b7853f7.jpgNUDT_CHINA: Family Photo (2022) [English]This is a series of family photo of our team.https://static.igem.org/peertube/streaming-playlists/hls/4626dcce-78b1-4d92-8b9c-53dc33e66e69/7fd92919-f06f-4872-bb63-7b96a97da7d9-master.m3u8https://video.igem.org/videos/embed/9Er8Q6qtkTMfvKT9KAGQYZ803762022-10-11T12:40:46.115ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iFqghUp2hLvhVA3mPvH6hPhttps://video.igem.org/lazy-static/thumbnails/ff71b72e-bd4b-45e0-adda-104fb87f9b7c.jpgSZU-China: Introduction for our online building activity (2022) [English]This video is a brief introduction for our online Human practices . Thi s video is placed in Education & Communication. Wiki link: https://2022.igem.wiki/szu-china/communication https://2022.igem.wiki/szu-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/8f2c5137-77d8-412b-a9d2-978c4a7a071b/b475406a-eb1b-49b0-9c14-ba163c40b819-master.m3u8https://video.igem.org/videos/embed/iFqghUp2hLvhVA3mPvH6hP143032022-10-11T12:59:19.993ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/323m6TKZN7fmHGscXpkMAUhttps://video.igem.org/lazy-static/thumbnails/b9fcd396-1b87-4a14-b1ad-23272bcb2845.jpgNYCU_Formosa: RPG game demo (2022) [English]https://2022.igem.wiki/nycu-formosa/https://static.igem.org/peertube/streaming-playlists/hls/1057779b-c807-4dd3-a72d-f03febaf81c4/60886816-678a-4628-aa2b-071cb77e81e7-master.m3u8https://video.igem.org/videos/embed/323m6TKZN7fmHGscXpkMAU810192022-10-11T13:02:28.233ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/518fkUhLc4ECJXanqXNDHrhttps://video.igem.org/lazy-static/thumbnails/b63a080d-0cf8-4b5f-9668-bc2ba8b4b393.jpgHUST-China: design-gols (2022) [English]Animation of the design https://2022.igem.wiki/hust-china/designhttps://static.igem.org/peertube/streaming-playlists/hls/2069055c-9cc5-4bc5-93e2-987d031fe4f7/f843d800-ec35-4f37-be51-7cc88758ac99-master.m3u8https://video.igem.org/videos/embed/518fkUhLc4ECJXanqXNDHr1601492022-10-11T13:17:10.222ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/b5zHufm1QgwGW6Ya7eByKhhttps://video.igem.org/lazy-static/thumbnails/4c97d554-e529-49b5-8bf7-7c333bfd5af6.jpgICT-Mumbai: SynBio Workshop Review-1 (2022) [English]The pandemic had taken a drastic effect on our country and colleges were not open for undergraduate students. Working towards our project, we realized the importance that practical aspects had in our understandings. Based on this, with the assistance of our PI Dr. Shamlan Reshamwala, we conducted a workshop to give hands-on practical to our peers. They were trained and made proficient in performing various synthetic biology experiments like plasmid extraction, digestion, ligation and making competent cells. Everyone interacted with the team very well and were very enthusiastic about performing these experiments. These experiments aided students in creating a better visualisation of the realistic aspects. They were able to see results that were usually only read by them only in theory.https://static.igem.org/peertube/streaming-playlists/hls/519f23b4-28b5-41a8-9f8e-d8510ea1b296/004bd9f0-6486-475f-a341-5b019c30084b-master.m3u8https://video.igem.org/videos/embed/b5zHufm1QgwGW6Ya7eByKh101042022-10-11T13:38:16.556ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6qLw8FFC8HdYbTSAfuSnsmhttps://video.igem.org/lazy-static/thumbnails/9f284824-9f8b-47a8-b341-a511f5ac3829.jpgThessaloniki: Thessaloniki_22-HCR-video (2022) [English]In this video, we describe the way of action of our project Theriac. More specifically, we describe a technique called Hybridization Chain Reaction (HCR). Credits: Mariah Alevras and iGEM Thessaloniki 2022 https://static.igem.org/peertube/streaming-playlists/hls/2bf2fadb-8a80-4ad4-a90e-6a15a9c53abc/c6a3fa12-d166-4015-b6e6-961ac54bc67d-master.m3u8https://video.igem.org/videos/embed/6qLw8FFC8HdYbTSAfuSnsm2302822022-10-11T13:58:30.614ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qQP4EHmZYPocDGyMBCL1owhttps://video.igem.org/lazy-static/thumbnails/18208b9a-b094-4f53-96aa-16e545e7deed.jpgICT-Mumbai: Lecture Series for Marathi Medium Students-Lecture 1 (2022) [Marathi]A member of our team, Sahil Jadhav, conducted a series of lectures in Marathi, the local language in Maharashtra for students learning in Marathi Medium Secondary Schools. This workshop aimed to acquiesce them with the different, especially the newer branches of biology with a highlight on synthetic biology, biochemistry, and molecular biology. The students were from grades 9 and 10 and had not performed any experiments beyond the basic ones in their lab. They were briefed about various techniques like PCR and cloning. Our team also explained to them, in brief, the central dogma of life and how proteins are produced in a cell. The students were very enthusiastic about learning and were eager to ask more questions at the end of the lecture.https://static.igem.org/peertube/streaming-playlists/hls/c92c0855-01bf-4542-a995-a10353742e5a/2e3d56f3-ab7b-4573-b5ef-29053e6b6d75-master.m3u8https://video.igem.org/videos/embed/qQP4EHmZYPocDGyMBCL1ow480082022-10-11T15:39:42.839ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rRRPU7nhCk31Ywdqiyk36Khttps://video.igem.org/lazy-static/thumbnails/18f578f6-ac66-4451-b5b4-257381c71e0f.jpgICT-Mumbai: Lecture Series for Marathi Medium Students-Cloning (2022) [Marathi]A member of our team, Sahil Jadhav, conducted a series of lectures in Marathi, the local language in Maharashtra for students learning in Marathi Medium Secondary Schools. This workshop aimed to acquiesce them with the different, especially the newer branches of biology with a highlight on synthetic biology, biochemistry, and molecular biology. The students were from grades 9 and 10 and had not performed any experiments beyond the basic ones in their lab. They were briefed about various techniques like PCR and cloning. Our team also explained to them, in brief, the central dogma of life and how proteins are produced in a cell. The students were very enthusiastic about learning and were eager to ask more questions at the end of the lecture.https://static.igem.org/peertube/streaming-playlists/hls/d16a9e13-efbf-401a-838a-3090c407802d/aad4a814-9601-4101-8b3d-afecde7a74f0-master.m3u8https://video.igem.org/videos/embed/rRRPU7nhCk31Ywdqiyk36K507032022-10-11T15:42:14.431ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/g3Dr2LxXep8Gd55mmCjHNmhttps://video.igem.org/lazy-static/thumbnails/329634d1-597a-49bb-9fa0-6a88a0471d97.jpgICT-Mumbai: Lecture Series for Marathi Medium Students-Gel Electrophoresis (2022) [Marathi]A member of our team, Sahil Jadhav, conducted a series of lectures in Marathi, the local language in Maharashtra for students learning in Marathi Medium Secondary Schools. This workshop aimed to acquiesce them with the different, especially the newer branches of biology with a highlight on synthetic biology, biochemistry, and molecular biology. The students were from grades 9 and 10 and had not performed any experiments beyond the basic ones in their lab. They were briefed about various techniques like PCR and cloning. Our team also explained to them, in brief, the central dogma of life and how proteins are produced in a cell. The students were very enthusiastic about learning and were eager to ask more questions at the end of the lecture.https://static.igem.org/peertube/streaming-playlists/hls/79d7a2ad-662e-4608-a2aa-fe6dfd6cadd4/a595d3bf-1e36-4cdd-b1bb-76bd1f7c0278-master.m3u8https://video.igem.org/videos/embed/g3Dr2LxXep8Gd55mmCjHNm190002022-10-11T15:42:58.675ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/v8ExdZwQ9iU5KBMbSzR1ZYhttps://video.igem.org/lazy-static/thumbnails/b88b2576-1aa2-4192-9fae-874c2ba43faf.jpgNU_Kazakhstan: Interview with middle school students with visual impairments (2022) [Russian]On 24.05.2022, iGEM NU_Kazakhstan team held a workshop at Nazarbayev University for students with visual impairments from the school-gymnasium №10 of Nur-Sultan city in the framework of the RemiSee social project. This workshop was dedicated to modeling an animal cells from plasticine. Our team decided to interview some of the participants. https://2022.igem.wiki/nu-kazakhstan/https://static.igem.org/peertube/streaming-playlists/hls/ebeafa45-dcfe-468b-bf8f-f51ee8bc6f1a/5a4d853d-19e3-4017-aee9-a923f0610410-master.m3u8https://video.igem.org/videos/embed/v8ExdZwQ9iU5KBMbSzR1ZY431082022-10-11T14:37:32.153ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/e2FG8enfmmuA5Lt79e18vZhttps://video.igem.org/lazy-static/thumbnails/b060a55f-e77a-4cd5-a9dc-c3d0062d4747.jpgICT-Mumbai: SynBio Workshop Review-2 (2022) [English]The pandemic had taken a drastic effect on our country and colleges were not open for undergraduate students. Working towards our project, we realized the importance that practical aspects had in our understandings. Based on this, with the assistance of our PI Dr. Shamlan Reshamwala, we conducted a workshop to give hands-on practical to our peers. They were trained and made proficient in performing various synthetic biology experiments like plasmid extraction, digestion, ligation and making competent cells. Everyone interacted with the team very well and were very enthusiastic about performing these experiments. These experiments aided students in creating a better visualisation of the realistic aspects. They were able to see results that were usually only read by them only in theory.https://static.igem.org/peertube/streaming-playlists/hls/698301dd-fceb-4c95-bd26-fb4279283697/8b2193e3-06ad-4d1e-bfee-cc08efac65c5-master.m3u8https://video.igem.org/videos/embed/e2FG8enfmmuA5Lt79e18vZ108032022-10-11T15:43:25.300ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ggCWrUo6ubmjYDJshR9GjKhttps://video.igem.org/lazy-static/thumbnails/acac0ca5-6729-4f00-bc09-bef864261c21.jpgICT-Mumbai: SynBio Workshop Review-3 (2022) [English]The pandemic had taken a drastic effect on our country and colleges were not open for undergraduate students. Working towards our project, we realized the importance that practical aspects had in our understandings. Based on this, with the assistance of our PI Dr. Shamlan Reshamwala, we conducted a workshop to give hands-on practical to our peers. They were trained and made proficient in performing various synthetic biology experiments like plasmid extraction, digestion, ligation and making competent cells. Everyone interacted with the team very well and were very enthusiastic about performing these experiments. These experiments aided students in creating a better visualisation of the realistic aspects. They were able to see results that were usually only read by them only in theory.https://static.igem.org/peertube/streaming-playlists/hls/7ba80031-6780-4d4c-bbfa-a81b48a735af/78ace972-a878-439b-a844-6f95c4010e15-master.m3u8https://video.igem.org/videos/embed/ggCWrUo6ubmjYDJshR9GjK109012022-10-11T15:43:52.820ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mLx49sQ86sdn5gMNLXZX82https://video.igem.org/lazy-static/thumbnails/a70150ba-14bc-4336-9566-e7a992926c76.jpgICT-Mumbai: SynBio Workshop Review-4 (2022) [English]The pandemic had taken a drastic effect on our country and colleges were not open for undergraduate students. Working towards our project, we realized the importance that practical aspects had in our understandings. Based on this, with the assistance of our PI Dr. Shamlan Reshamwala, we conducted a workshop to give hands-on practical to our peers. They were trained and made proficient in performing various synthetic biology experiments like plasmid extraction, digestion, ligation and making competent cells. Everyone interacted with the team very well and were very enthusiastic about performing these experiments. These experiments aided students in creating a better visualisation of the realistic aspects. They were able to see results that were usually only read by them only in theory. https://static.igem.org/peertube/streaming-playlists/hls/a82ea30e-2c4f-4246-b2ac-d8655028f02b/ddd7c637-b5fe-4e33-9cbd-8df4e1bd42c2-master.m3u8https://video.igem.org/videos/embed/mLx49sQ86sdn5gMNLXZX8266012022-10-11T15:44:14.234ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1b6Wc2z5oVP89VhaAg46BJhttps://video.igem.org/lazy-static/thumbnails/4749b0ab-9aa1-4679-9fdd-f0e783fa1c3b.jpgWorldshaper-HZBIOX: Brochure of Gut Alliance (2022) [English]brochure of gut alliancehttps://static.igem.org/peertube/streaming-playlists/hls/01691848-16af-4412-8038-d61cbf4804b4/d49bb3de-a281-46f4-8147-f60d1b9a53d9-master.m3u8https://video.igem.org/videos/embed/1b6Wc2z5oVP89VhaAg46BJ48032022-10-11T14:50:40.823ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7VdBeZsdip5n2RKUmpy249https://video.igem.org/lazy-static/thumbnails/466a28ec-5d19-4e23-8c03-b862b8b55217.jpgPatras_Medicine: iJET Video (2022) [English]iJET Collab https://static.igem.org/peertube/streaming-playlists/hls/3805057f-f83e-43d5-9e36-c794c75ae74a/151280c2-6945-493c-9aa4-d4743119bcaf-master.m3u8https://video.igem.org/videos/embed/7VdBeZsdip5n2RKUmpy2497670272022-10-11T16:48:11.514ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vREqQ2h447DdzSEwG8c6u7https://video.igem.org/lazy-static/thumbnails/0a411ac9-daf2-42ab-89f0-2f5b41592392.jpgAix-Marseille: Clean walk at DELTA Festival (2022) [French]Event during delta festival 2022https://static.igem.org/peertube/streaming-playlists/hls/f1c825e3-de7c-4a94-9a9c-0a0a8a8292ba/944884f3-da25-4a84-a4d4-fc7a6876cee5-master.m3u8https://video.igem.org/videos/embed/vREqQ2h447DdzSEwG8c6u7100132022-10-11T14:50:25.023ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ebmNQeuwCzXGqaYCf53sBMhttps://video.igem.org/lazy-static/thumbnails/1fb45261-7f10-4f1b-b0bb-2e2d69c093a0.jpgICT-Mumbai: Lecture Series for Marathi Medium Students-PCR (2022) [Marathi]A member of our team, Sahil Jadhav, conducted a series of lectures in Marathi, the local language in Maharashtra for students learning in Marathi Medium Secondary Schools. This workshop aimed to acquiesce them with the different, especially the newer branches of biology with a highlight on synthetic biology, biochemistry, and molecular biology. The students were from grades 9 and 10 and had not performed any experiments beyond the basic ones in their lab. They were briefed about various techniques like PCR and cloning. Our team also explained to them, in brief, the central dogma of life and how proteins are produced in a cell. The students were very enthusiastic about learning and were eager to ask more questions at the end of the lecture.https://static.igem.org/peertube/streaming-playlists/hls/6ab91035-d136-4689-96a8-89abcf8a0313/249bb20b-ea91-45bb-8af3-f2a70c11ae24-master.m3u8https://video.igem.org/videos/embed/ebmNQeuwCzXGqaYCf53sBM480002022-10-11T15:54:28.839ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iGTRdrezTunLHzft4xbcGChttps://video.igem.org/lazy-static/thumbnails/a3c0472f-efc7-434c-9dc5-9e98b0644b24.jpgDKU_China: Logo Animation (2022) [English]DKU_China: Logo Animation (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/8f610f91-1e74-4e6c-aff9-29a8109573e0/d3f47eb4-bfe0-4632-8377-3a61609c4ae7-master.m3u8https://video.igem.org/videos/embed/iGTRdrezTunLHzft4xbcGC15062022-10-11T14:50:27.046ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fshuRq8CeE6ZnZpkKE1q9chttps://video.igem.org/lazy-static/thumbnails/6112b3e2-3848-42f9-981c-2911f4c01098.jpgMunich: TetR dimer docking to DNA binding motif (2022)Spinning TetR dimer docking to the DNA binding motif. The animation was produced using the PyMol software.https://static.igem.org/peertube/streaming-playlists/hls/750b7238-6ebb-4caa-bcf5-afb600063ebb/11121203-e63d-4b60-9036-2f650d8ac761-master.m3u8https://video.igem.org/videos/embed/fshuRq8CeE6ZnZpkKE1q9c3012022-10-11T15:26:02.147ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8EFkwigWtuJV96kmEwWTLrhttps://video.igem.org/lazy-static/thumbnails/1c700208-4db4-4f9a-a544-e17ec5182a81.jpgFAFU-China: team (2022) [English]FAFU-China: team (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3e1679d5-a9fd-4108-ac55-c6d9179167cd/91fcbe34-706f-487f-a3d9-2113e709d99e-master.m3u8https://video.igem.org/videos/embed/8EFkwigWtuJV96kmEwWTLr24032022-10-11T15:26:15.499ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3v4C1iAaNKV5oDwitbi5zqhttps://video.igem.org/lazy-static/thumbnails/228e7bbd-df1a-4ebd-a251-4eefe5d7dd63.jpgHUST-China: hardware2 (2022) [English]Hardware Function Demonstration https://2022.igem.wiki/hust-china/Hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/144113fa-16dc-40b6-8eaf-7d918723118a/d08e1187-02dc-45db-b619-d50b46788e6b-master.m3u8https://video.igem.org/videos/embed/3v4C1iAaNKV5oDwitbi5zq120542022-10-11T15:27:25.536ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jMd1FHhggBU7326HdEqSsphttps://video.igem.org/lazy-static/thumbnails/7c9ff334-331d-4a5e-bb47-34e89acbd9da.jpgMunich: Tetracycline docking to the TetR dimer (2022)Tetracycline docking to the TetR dimer. The animation was produced using the PyMol software.https://static.igem.org/peertube/streaming-playlists/hls/98145e39-ad82-4e80-90e9-7e6481179063/1afd09bb-d061-4cb8-a0fe-07ee0fe1cdf9-master.m3u8https://video.igem.org/videos/embed/jMd1FHhggBU7326HdEqSsp2002022-10-11T15:26:17.754ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/quheiVdeJjaJG4wiLRcJzdhttps://video.igem.org/lazy-static/thumbnails/806e55db-d8be-45f0-87b4-89bc100e4232.jpgIonis_Paris: 99SEC iGEM IONIS 2022 (2022) [English]99SEC iGEM IONIS 2022 (2022) [English] wiki link: https://2022.igem.wiki/ionis-paris/https://static.igem.org/peertube/streaming-playlists/hls/c64e27b8-b8fc-4c65-bce7-d700853faef6/91328deb-a8b8-4815-9dab-a91bf53dd6a5-master.m3u8https://video.igem.org/videos/embed/quheiVdeJjaJG4wiLRcJzd1300412022-10-11T15:25:37.514ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rNWPqVhwKyGHTjKgG3Y9hKhttps://video.igem.org/lazy-static/thumbnails/93f1ebca-5d5a-4d9b-ab67-2af3dbebb436.jpgCU_Egypt: Zekra logo (2022)Zekra logo loading https://static.igem.org/peertube/streaming-playlists/hls/d102766a-5333-4bf3-b089-c3eaecb1460b/7b5d4a16-47b1-4b46-b9a9-869bec596105-master.m3u8https://video.igem.org/videos/embed/rNWPqVhwKyGHTjKgG3Y9hK205882022-10-11T15:29:10.443ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/72XQEuoN7hcq9C2GgswkTBhttps://video.igem.org/lazy-static/thumbnails/6955738d-1418-44c1-83d4-3912fd40b7d4.jpgTianjin: Ode to Joy program view (2022) [English]Ode to Joy program view https://2022.igem.wiki/tianjin/https://static.igem.org/peertube/streaming-playlists/hls/30dcfcdd-69da-4d1a-913d-58c433787e8d/ddb3b60d-6ff3-4909-86dc-ab660bba726d-master.m3u8https://video.igem.org/videos/embed/72XQEuoN7hcq9C2GgswkTB87082022-10-11T15:29:00.822ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aVWdEGVaVfaYqasLbMpiidhttps://video.igem.org/lazy-static/thumbnails/fbaddedb-e078-4a9c-b9d8-1631fbc3a1a3.jpgWHU-China: WHU-Reach for Happiness (2022) [English]A small game of our project : Reach for Light , named Reach for Light.https://static.igem.org/peertube/streaming-playlists/hls/506a14be-385b-4ac0-8e4e-8fd8cc28e5f2/40eb15d9-1ee2-4448-8552-04cf86fe355b-master.m3u8https://video.igem.org/videos/embed/aVWdEGVaVfaYqasLbMpiid220142022-10-11T15:29:18.283ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mRtu8KGhsicm4G6wMa1MUBhttps://video.igem.org/lazy-static/thumbnails/54b01a5f-7962-455f-aa12-3565b9553abf.jpgTianjin: First edit joy (2022) [English]First edit joy https://2022.igem.wiki/tianjin/https://static.igem.org/peertube/streaming-playlists/hls/a8df27fc-d9a5-4b52-85c2-3f59062a1bef/123cb6fc-c180-4f45-b4d1-1fd3be3a3ec5-master.m3u8https://video.igem.org/videos/embed/mRtu8KGhsicm4G6wMa1MUB25052022-10-11T15:39:45.680ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9tRQBdFd67c9ashcupaD8thttps://video.igem.org/lazy-static/thumbnails/37b57fef-f2fc-4e5d-b455-649103da7d9f.jpgUCopenhagen: PocketLab - Assisted technology device playtest (2022) [English]We tried playing our game with assisted technology device.https://static.igem.org/peertube/streaming-playlists/hls/44ace7a5-17ba-4f75-b06b-f5bf667de5fd/177ac4b5-ffc0-442e-a39e-bfd39e45aaf3-master.m3u8https://video.igem.org/videos/embed/9tRQBdFd67c9ashcupaD8t1490382022-10-11T15:43:39.062ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wapyEHgxdF7tQqn9GRfsrghttps://video.igem.org/lazy-static/thumbnails/bc9d1105-6c0b-4c1a-b8ae-0ef7e0882de7.jpgTianjin: Joy with error (2022) [English]Joy with error https://2022.igem.wiki/tianjin/https://static.igem.org/peertube/streaming-playlists/hls/f4426005-b698-4f45-b800-861730421d21/caef0ec2-8bc9-45e0-b5cc-eea008ae8418-master.m3u8https://video.igem.org/videos/embed/wapyEHgxdF7tQqn9GRfsrg25052022-10-11T15:42:43.016ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/c6h4KqRsyiZRruCwJRxhyphttps://video.igem.org/lazy-static/thumbnails/c4d93821-3c17-4d05-9feb-2412b4d831a9.jpgTianjin: Second edit joy (2022) [English]Second edit joy https://2022.igem.wiki/tianjin/https://static.igem.org/peertube/streaming-playlists/hls/59d124f0-56f1-46a0-a408-b7556718683f/a3d73183-07ac-4751-8df3-9a8ae670cc8e-master.m3u8https://video.igem.org/videos/embed/c6h4KqRsyiZRruCwJRxhyp25032022-10-11T15:43:00.424ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/prPM46zVnHDiyR9sw56tVPhttps://video.igem.org/lazy-static/thumbnails/01339b25-c2c3-473a-9837-5a4ee287de55.jpgThailand_RIS: Instagram Video Project (2022) [English]We participated in the Instagram Video Project hosted by Greece team, Patras Med. This required us to film a short video introducing our team and the iGEM track we competed in. We began by discussing the inspirations behind our participation and project, as well as giving a brief overview of it. This was a new and fresh experience that granted us the ability to advocate for our causes while also connecting with teams from all over the world through social media.https://static.igem.org/peertube/streaming-playlists/hls/bddd3a17-4e04-44c5-84fe-13e4d6f7b245/76b5c0dd-2f78-4094-9390-77351bdefbc7-master.m3u8https://video.igem.org/videos/embed/prPM46zVnHDiyR9sw56tVP54072022-10-11T15:52:07.651ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/oDetX8UvMkM4cSKEy1gZaNhttps://video.igem.org/lazy-static/thumbnails/c74ed3bd-22cf-4361-9ee1-3a0829c9cea1.jpgCHINA-FAFU: Video-human practices-entrepreneurship (2022) [English]The R & D team of the company has had many years of research foundation in the field of microalgae new energy and new resources, and some of the achievements have been published in many international mainstream magazines, and it has applied for a number of national invention patents. The research results of our team actively and effectively provide new impetus for China to tackle climate change, energy shortage and green and low-carbon development; for microalgae-based research, controllable and safe cell plants. At the same time, we will work with experts, scholars and entrepreneurs in various fields at home and abroad to promote the realization of the "carbon neutrality" goal in China and the world. https://2022.igem.wiki/china-fafu/entrepreneurshiphttps://static.igem.org/peertube/streaming-playlists/hls/b75be0e7-5da9-4d4b-9979-9beafa01d094/924d2491-ec5a-4094-b7b3-cb9a4119a73b-master.m3u8https://video.igem.org/videos/embed/oDetX8UvMkM4cSKEy1gZaN3000192022-10-11T16:31:08.258ZCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7MaWE9W6GcqnLC4UzCP49rhttps://video.igem.org/lazy-static/thumbnails/dc3535a5-e632-4c4d-b97b-41fb1d91bc56.jpgTianjin: GIF Micro Venus (2022) [English]GIF Micro Venus https://2022.igem.wiki/tianjin/https://static.igem.org/peertube/streaming-playlists/hls/36e56dc6-f44a-4323-9062-baceaf24db0d/5206fdcd-e083-4f88-9b44-0807e46b4d77-master.m3u8https://video.igem.org/videos/embed/7MaWE9W6GcqnLC4UzCP49r860102022-10-11T16:13:26.583ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1gems24gHumWk2bHbtuWc6https://video.igem.org/lazy-static/thumbnails/f6bbd357-8cca-4415-8b64-5dc07cb076d9.jpgIISER_TVM: Breast cancer screening camp (2022) [English]We are proud to inform you that, in collaboration with the Indian Medical Association, team iGEM IISER-TVM conducted a breast cancer screening camp on June 11th, 2022. Take a glance at the day's highlights:) Recently, some of our team members interacted with the housekeeping staff on our campus to assess what percentage of the local population was aware of self-detection methods for breast cancer. The lack of breast cancer awareness was worrisome. This was our motivation to organize a breast cancer screening drive and awareness campaign here in our institute. We thank everyone for making this endeavor a successhttps://static.igem.org/peertube/streaming-playlists/hls/022062a6-dd23-4d2a-9276-018665294dab/91d2f18e-5390-427d-9da8-d712e315f0de-master.m3u8https://video.igem.org/videos/embed/1gems24gHumWk2bHbtuWc639042022-10-11T16:16:42.498ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nYedFeDyAPA5tuvnwmzo9thttps://video.igem.org/lazy-static/thumbnails/8cedd5a7-63c0-4116-b0d1-952e6b2ca8ca.jpgCHINA-FAFU: Video-human practices-education-15 (2022) [English]One of the important prerequisites for the steady development of a country is the stability and security of the ecological environment. Protecting the environment and saving resources requires the joint efforts of generations or even dozens of generations. Therefore, the education of minors is very important. We believe that motivating minors to take responsibility for conserving and protecting water while imparting simple skills and problem-solving skills can make the learning process more enjoyable and engaging by providing a visual learning medium. To this end, we made a short animation for popular science propaganda. https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/b1e9b58e-9217-4fcf-a145-75993e10adeb/48300989-1d07-4bfb-baed-689bd4d6f7ad-master.m3u8https://video.igem.org/videos/embed/nYedFeDyAPA5tuvnwmzo9t2570142022-10-11T16:23:03.556ZEducationCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nUtdCV7A4kReBbjKho2eREhttps://video.igem.org/lazy-static/thumbnails/e4d7abd0-f65e-4d85-a450-8020b9e404ea.jpgTecCCM: Let's Transform Aging Clip (2022) [Spanish]A brief clip of our event Let's Transform Aging. https://2022.igem.wiki/tecccmhttps://static.igem.org/peertube/streaming-playlists/hls/b1635c8b-cf41-47cd-9027-f2d6277ed75c/564ede87-cde4-4cc0-a6b4-af625697e2e4-master.m3u8https://video.igem.org/videos/embed/nUtdCV7A4kReBbjKho2eRE4032022-10-11T16:26:49.722ZAgeingSocial ImpactHuman PracticesAgingYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hkaaXyGFzbGKEfRbH98EAFhttps://video.igem.org/lazy-static/thumbnails/4f270ced-5aef-4938-82c4-af4a7ad11671.jpgTecCCM: Interview with Dr. Tamas Fülöp (2022) [English]A clip of our interview with Dr. Tamas Fülöp. https://2022.igem.wiki/tecccmhttps://static.igem.org/peertube/streaming-playlists/hls/843f00a0-31b4-4ebf-a6d5-ccd03525a86b/c65f232e-0a8a-4d58-8f23-13a995b98d6c-master.m3u8https://video.igem.org/videos/embed/hkaaXyGFzbGKEfRbH98EAF96042022-10-11T16:30:59.934ZAgeingInterviewHuman PracticesAgingYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6reuDk17XE8mgkaswAVzjEhttps://video.igem.org/lazy-static/thumbnails/ccbb45d1-e55a-424f-99a5-b3d190ab9fd7.jpgGA_State_SW_Jiaotong: Using algae and microbial co-cultures to combat energy shortages (2022) [En...wiki link: https://2022.igem.wiki/ga-state-sw-jiaotong/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/2c039a7a-9d3d-46b0-a648-d0035b8ce706/67c965dc-8152-45bd-896b-e2517e6443a0-master.m3u8https://video.igem.org/videos/embed/6reuDk17XE8mgkaswAVzjE118002022-10-11T16:40:28.765ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bJqaYuFmecCRp3aN12U6RJhttps://video.igem.org/lazy-static/thumbnails/b2fd6b70-2592-4f8a-9385-eba0ecda9ad5.jpgTecCCM: Presentation of our project for AFCM_Egypt Meetup (Collaboration) (2022) [English]Video presentation of our project which was presented in the Meetup organized by AFCM_Egypt as a part of our collaboration. https://2022.igem.wiki/tecccmhttps://static.igem.org/peertube/streaming-playlists/hls/56e7857d-4fff-4697-a35a-e70820c23428/543c2573-8279-48c4-9cae-24a33c13fd4e-master.m3u8https://video.igem.org/videos/embed/bJqaYuFmecCRp3aN12U6RJ409062022-10-11T16:42:40.576ZCollaborationAgeingAgingMeetupYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hXcFrkFUBsd9xMh1V9uKCzhttps://video.igem.org/lazy-static/thumbnails/b7c7af75-e7ad-4aca-ba4e-dace89e21543.jpgTecCCM: Science Fair Recap (2022) [Spanish]A brief recap with evidence of the Science Fair that we held in our campus.https://static.igem.org/peertube/streaming-playlists/hls/894752ed-3d66-4ef6-93c1-d16ce847d755/290da51b-80f8-4192-9037-04e537a541ea-master.m3u8https://video.igem.org/videos/embed/hXcFrkFUBsd9xMh1V9uKCz87042022-10-11T16:43:03.791ZEventEducationScienceScience FairYESiGEM 2022 TeamsNOhttps://video.igem.org/w/og2JZLYac1uDGeFHfbPgaXhttps://video.igem.org/lazy-static/thumbnails/5de99bf9-34c3-4337-947a-bc184d7c3226.jpgTecCCM: Expert's opinion about implementing our project in the Public Sector (2022) [Spanish]Evidence of an expert's opinion about implementing our project in the Public Sector. https://2022.igem.wiki/tecccmhttps://static.igem.org/peertube/streaming-playlists/hls/b44247ba-a527-46a7-974c-545b965af0d5/59cfb87a-d35d-47b5-806b-b46e05187f7b-master.m3u8https://video.igem.org/videos/embed/og2JZLYac1uDGeFHfbPgaX45022022-10-11T16:43:16.782ZExpert's opinionPublic SectorHuman PracticesProject ImplementationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/t51XvwqwgF5cNWmmN2SwVmhttps://video.igem.org/lazy-static/thumbnails/a9510ac8-2941-4f1c-8106-bfac7e47e518.jpgCHINA-FAFU: Video-human practices-education-16 (2022) [English]One of the important prerequisites for the steady development of a country is the stability and security of the ecological environment. Protecting the environment and saving resources requires the joint efforts of generations or even dozens of generations. Therefore, the education of minors is very important. We believe that motivating minors to take responsibility for conserving and protecting water while imparting simple skills and problem-solving skills can make the learning process more enjoyable and engaging by providing a visual learning medium. To this end, we made a short animation for popular science propaganda. Inspiration https://2022.igem.wiki/china-fafu/educationhttps://static.igem.org/peertube/streaming-playlists/hls/db364f07-3dee-4472-a7b0-e60f2b86eeee/563c62d3-39a8-44e2-8cb2-707bd680ee6b-master.m3u8https://video.igem.org/videos/embed/t51XvwqwgF5cNWmmN2SwVm2140292022-10-11T17:11:57.748ZCHINA-FAFUEducationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mtqMNUBCNxmx4ihoxpsEdEhttps://video.igem.org/lazy-static/thumbnails/bf386db9-c9ab-44de-8e62-a7a4dfca591c.jpgTecCCM: Alginate Pearls (2022) [English]Video explanation of our experimental protocol: "Alginate Pearls". https://2022.igem.wiki/tecccmhttps://static.igem.org/peertube/streaming-playlists/hls/a5cb21db-2b1b-40d0-b834-3b2ffc10a596/9703f7bb-fb74-4e00-aa18-7ee2354690b0-master.m3u8https://video.igem.org/videos/embed/mtqMNUBCNxmx4ihoxpsEdE111072022-10-11T16:49:55.061ZAlginate PearlsProtocolWet LabExperimentBiotin-streptavidinYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hzeZYHqY8nyfPe5FGDPvK1https://video.igem.org/lazy-static/thumbnails/83bcecf4-9668-4926-8072-a6a117e01ecc.jpgGA_State_SW_Jiaotong: Using algae and microbial co-cultures to combat energy shortages (2022) [En...wiki link: https://2022.igem.wiki/ga-state-sw-jiaotong/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/863663fa-7c0c-4c9c-b480-3de526bc913a/6927a0f3-78b8-4309-920b-dedaa4caeae0-master.m3u8https://video.igem.org/videos/embed/hzeZYHqY8nyfPe5FGDPvK11150372022-10-11T16:49:26.608ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ir34Lg2uU3rcBnKfbWoz3Vhttps://video.igem.org/lazy-static/thumbnails/ca26c80d-b45b-43e2-9082-711cc2dcb484.jpgTecCCM: EMSA (2022) [English]Video explanation of the protocol: "Electrophoretic Mobility Shift Assay" https://2022.igem.wiki/tecccmhttps://static.igem.org/peertube/streaming-playlists/hls/8d2a3957-ebf5-4607-9243-1c1e88f87d5d/d7030d71-80a0-4cda-ac18-eb6368aaec16-master.m3u8https://video.igem.org/videos/embed/ir34Lg2uU3rcBnKfbWoz3V133092022-10-11T16:56:53.017ZAptamersProtocolEMSAWet LabExperimentYESiGEM 2022 TeamsNOhttps://video.igem.org/w/e7WGUzfXZkUEpqszXRLwJchttps://video.igem.org/lazy-static/thumbnails/d60111de-dd59-4908-8c78-5c9cdecd42f0.jpgBNU-China: Basic Experiment and Labortary (2022)In the video, 2022BNU-China shows the equipment in the lab, and the basic process of experimental operations.https://static.igem.org/peertube/streaming-playlists/hls/6a3efa80-da0a-4ac1-9aff-81d22c658d57/612f5e8b-3699-401c-bb66-c9cc59f6ed88-master.m3u8https://video.igem.org/videos/embed/e7WGUzfXZkUEpqszXRLwJc14032022-10-11T16:58:30.641ZexperimentLabYESiGEM 2022 TeamsNOhttps://video.igem.org/w/g3AgLYNBWj4sGbWTkS2Zuahttps://video.igem.org/lazy-static/thumbnails/0cca575d-60cc-4295-af67-c5b951bf1d01.jpgWaterloo: Pinene Express (2022) [French]The Canadian government legalized recreational cannabis use in 2018 and since then, both demand and the industry have grown at unimaginable rates. Unfortunately, cultivating and processing cannabis is an unsustainable and resource-intensive process. Pinene Express makes use of bioengineered yeast to produce the main compounds found in the cannabis plant as a more efficient and greener alternative to cultivation.https://static.igem.org/peertube/streaming-playlists/hls/79d5b034-c234-4f7a-8b0e-a510ea70654d/2b410e9e-a6c1-400a-9a48-98139f9da1c7-master.m3u8https://video.igem.org/videos/embed/g3AgLYNBWj4sGbWTkS2Zua1220132022-10-11T17:01:57.615ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/87LGvGgUh3KUUjTCRRWdzyhttps://video.igem.org/lazy-static/thumbnails/bf58e269-a1c4-4c64-a197-6047fd7ccc2e.jpgWaterloo: Pinene Express (2022) [Spanish]The Canadian government legalized recreational cannabis use in 2018 and since then, both demand and the industry have grown at unimaginable rates. Unfortunately, cultivating and processing cannabis is an unsustainable and resource-intensive process. Pinene Express makes use of bioengineered yeast to produce the main compounds found in the cannabis plant as a more efficient and greener alternative to cultivation.https://static.igem.org/peertube/streaming-playlists/hls/39a1faca-e412-420d-8a32-5ecbfb24e7ea/c5bd70e2-fa08-4293-8a07-813f5f5c782e-master.m3u8https://video.igem.org/videos/embed/87LGvGgUh3KUUjTCRRWdzy119082022-10-11T17:02:22.231ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dcaEFdGucgvqovCeKMn9Tmhttps://video.igem.org/lazy-static/thumbnails/b441ae57-1ce7-4229-8e7d-dc090ac9342e.jpgEPFL: Project Snapchots 5.0 (2022) [English]Some snapshots of our project, illustrating our work. Check out our website for more info: https://2022.igem.wiki/epfl/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/62bccd83-62d1-4a84-a117-7c1d8839c3fa/a672c6fb-e8fe-41e9-aca2-0ed507019296-master.m3u8https://video.igem.org/videos/embed/dcaEFdGucgvqovCeKMn9Tm30032022-10-11T17:01:38.473ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/u1dmkmgPVhyxsxwqfdAzcfhttps://video.igem.org/lazy-static/thumbnails/24525d3e-4635-4478-b635-34e0c5641f92.jpgTecCCM: Phenylketonuria disorder explanation for AFCM_Egypt Meetup (Collaboration) (2022) [English]Video explanation of Phenylketonuria disorder, as part of our collaboration with AFCM_Egypt https://2022.igem.wiki/tecccmhttps://static.igem.org/peertube/streaming-playlists/hls/e2c77e69-5578-4965-8678-7e0ff99fa900/c40517ff-f364-4475-9c7a-de2a2d66df33-master.m3u8https://video.igem.org/videos/embed/u1dmkmgPVhyxsxwqfdAzcf368042022-10-11T17:07:57.629ZDiseasePhenylketonuria disorderCollaborationYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hQMva6d2aJcDYU2sJiYfqshttps://video.igem.org/lazy-static/thumbnails/ee301dcf-2a6e-42fb-b573-ca3ca001b817.jpgWaterloo: Pinene Express (2022) [Mandarin]The Canadian government legalized recreational cannabis use in 2018 and since then, both demand and the industry have grown at unimaginable rates. Unfortunately, cultivating and processing cannabis is an unsustainable and resource-intensive process. Pinene Express makes use of bioengineered yeast to produce the main compounds found in the cannabis plant as a more efficient and greener alternative to cultivation. https://static.igem.org/peertube/streaming-playlists/hls/8861f628-8e26-4dfe-afb8-c22f348d9d92/e168cdc8-abc9-44e5-aca0-81aaba44acd4-master.m3u8https://video.igem.org/videos/embed/hQMva6d2aJcDYU2sJiYfqs1190152022-10-11T17:13:30.616ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dKDdM6jav7DXGmmuvTZCLPhttps://video.igem.org/lazy-static/thumbnails/918fab3d-8422-49fc-9658-0585b8d6b0df.jpgFudan: Online Bioart Audio Exhibition With Poems (2022) [Chinese]This is how our online bioart audio exhibition be presented on mobile terminals. Get more information in our wiki: http://2022.igem.wiki/fudanhttps://static.igem.org/peertube/streaming-playlists/hls/67459577-8860-47c5-ab59-37da3e9f0c6f/d96797f5-2407-4662-9b8e-b843636bc3f6-master.m3u8https://video.igem.org/videos/embed/dKDdM6jav7DXGmmuvTZCLP398092022-10-11T17:29:12.104ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/py9keiQDyTZH211dvmLUamhttps://video.igem.org/lazy-static/thumbnails/af47b326-a4b0-4f00-a200-db7d41bc0a66.jpgUCopenhagen: PocketLab editing tutorial (2022) [English]Guide on how to edit genes in the game PocketLabhttps://static.igem.org/peertube/streaming-playlists/hls/bebf1fd3-1b60-4d4c-92bf-3b20835a25ae/d12fbe10-c74f-49db-b528-652da7f91b83-master.m3u8https://video.igem.org/videos/embed/py9keiQDyTZH211dvmLUam1020072022-10-11T17:30:25.439ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/74ueC4Duq6L6e9Hp3xxMF2https://video.igem.org/lazy-static/thumbnails/3bf85573-9246-4471-a0d6-986f4b45f73d.jpgEvry_Paris-Saclay: BioPuzzle_Level Creator (2022) [English]This is a video to show you our new video game and more particularly its Level Creator system. Made by IGEM Evry Paris-Saclay 2022 https://2022.igem.wiki/evry-paris-saclay/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/311376af-c4ea-4831-9b7d-6215522bdf73/6128348f-8a34-41da-ad60-2e6d000e14e4-master.m3u8https://video.igem.org/videos/embed/74ueC4Duq6L6e9Hp3xxMF21380122022-10-11T17:30:21.505ZBiopuzzleVideoGameGameTeamYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qVdnGqTQjfapeis2P8BxwNhttps://video.igem.org/lazy-static/thumbnails/42c95954-a22e-416f-ab4a-23a8990811b0.jpgUCopenhagen: PocketLab ethanol mission (2022) [English]Video of the game PocketLab being playedhttps://static.igem.org/peertube/streaming-playlists/hls/c9c95f9a-8b11-435e-9259-24ecf01f83de/d48bf0c9-a2fe-4e85-a7be-b0d05a81a860-master.m3u8https://video.igem.org/videos/embed/qVdnGqTQjfapeis2P8BxwN150092022-10-11T17:30:37.706ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fDyieyY4bXY98xrhsLF2fYhttps://video.igem.org/lazy-static/thumbnails/45b0029a-d6af-423d-8dff-aed75a6cff53.jpgUCopenhagen: PocketLab spidroin mission (2022) [English]Video of the game PocketLab being played.https://static.igem.org/peertube/streaming-playlists/hls/769e5d52-fe44-4091-8917-35279a848d20/d860bab6-5a76-4be1-ad82-3887617dcfbe-master.m3u8https://video.igem.org/videos/embed/fDyieyY4bXY98xrhsLF2fY104022022-10-11T17:30:52.942ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3oqEjJPmUc5PKG92HBjShihttps://video.igem.org/lazy-static/thumbnails/43db50f5-e413-46ad-85ee-11b0c0832f89.jpgBIT-China: Team Introduction (2022) [English]team introduction of BIT-China 2022 Team. Wiki: https://2022.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/1353d686-0733-4d6b-ad7a-59b2465af799/107096ba-2304-4dd6-982f-5b76100f72bc-master.m3u8https://video.igem.org/videos/embed/3oqEjJPmUc5PKG92HBjShi11401022022-10-11T18:06:40.305ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mmhKrasms1v4tx7knw4DyRhttps://video.igem.org/lazy-static/thumbnails/0bbe9e53-ffa5-47f7-93eb-5890cb1e1093.jpgIISER-Tirupati_India: FASTmiR- miRNA Detection (2022) [English]IISER-Tirupati_India: FASTmiR- miRNA Detection (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/a4cbf86f-7c25-443d-9975-9b53fb4370dd/41d080d8-ccb3-4570-aabd-45329f800425-master.m3u8https://video.igem.org/videos/embed/mmhKrasms1v4tx7knw4DyR70202022-10-11T17:45:52.972ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ciY2qffNc9df62ob4Ro5xnhttps://video.igem.org/lazy-static/thumbnails/cbe7ae98-ba9d-46c8-8996-257872baa5f8.jpgIISER-Tirupati_India: miRPA (2022) [English]IISER-Tirupati_India: miRPA (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/5b96b215-ac28-4ce3-9a1a-9d5f98395c8b/90f55b43-8d6c-4a87-8caf-a0affc44b3a3-master.m3u8https://video.igem.org/videos/embed/ciY2qffNc9df62ob4Ro5xn320132022-10-11T17:45:57.021ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/r4UfmLrtaKsdLdQNMmGnSQhttps://video.igem.org/lazy-static/thumbnails/e94b0bd8-66d5-4fd9-ac65-3b8a78fdaa53.jpgIISER-Tirupati_India: Dual Aptamer-Protein & Hormone Detection: Approach 1- With phi29 DNA polyme...IISER-Tirupati_India: Dual Aptamer-Protein & Hormone Detection: Approach 1- With phi29 DNA polymerase (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/caffe581-8b0f-49f3-92ab-42471ad0d398/0611fe94-9d03-46ab-a53b-7fcd7a6f1a2d-master.m3u8https://video.igem.org/videos/embed/r4UfmLrtaKsdLdQNMmGnSQ630602022-10-11T17:46:01.710ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1aNgGokpspfD2hJEEzVuoMhttps://video.igem.org/lazy-static/thumbnails/2ad9af60-e7a7-4532-b590-1b6be38011cb.jpgIISER-Tirupati_India: Dual Aptamer-Protein & Hormone Detection: Approach 2- W/o phi29 DNA polymer...IISER-Tirupati_India: Dual Aptamer-Protein & Hormone Detection: Approach 2- W/o phi29 DNA polymerase (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/015e358f-32f4-4f65-aadb-9a2f6d7c88b1/0ff4d79e-1336-4002-88ea-835202064029-master.m3u8https://video.igem.org/videos/embed/1aNgGokpspfD2hJEEzVuoM470122022-10-11T17:47:13.555ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6vHbeXyyGsAzzGBNT7tWbdhttps://video.igem.org/lazy-static/thumbnails/453036b5-53f4-4950-8bdb-f904761451a5.jpgLambert_GA: CCA and Lambert Collaboration (2022) [English]This video is the product of the collaboration between Lambert iGEM and Canyon Crest Academy iGEM. Together, our high school iGEM teams created a guide to proper laboratory safety and usage. We hope this resource can prove useful to beginning biotechnology labs or newer iGEM teams. Lambert iGEM 2022: https://2022.igem.wiki/lambert-ga/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/2ca3a37a-8982-476a-b101-954ba3030c60/4a026794-21a6-4ba7-bbbc-b4be331211e0-master.m3u8https://video.igem.org/videos/embed/6vHbeXyyGsAzzGBNT7tWbd2080292022-10-11T17:50:08.857ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/rcnTbV3HseeuKSbc93aGNZhttps://video.igem.org/lazy-static/thumbnails/d9daeba4-da1c-43bf-a8f3-ea15f730e4ea.jpgMIT_MAHE: Podcast on synthetic biology in space (2022) [English]A podcast on applications of synthetic biology in space, as a collaboration with The Astronomy Club, Manipal and iGEM Team MIT_MAHE. The podcast involves two members each from the Astronomy club and iGEM Team of MIT_MAHE. Here's the link for our wiki https://2022.igem.wiki/mit-mahe/ https://static.igem.org/peertube/streaming-playlists/hls/cc0b2231-dc7c-463b-bc3c-786748c5708d/9d1e1101-bcfe-4622-ad50-4ffa6a088537-master.m3u8https://video.igem.org/videos/embed/rcnTbV3HseeuKSbc93aGNZ14030162022-10-11T18:00:46.380ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jTu7xMJXaYKkUV2CJAbR4vhttps://video.igem.org/lazy-static/thumbnails/4b2c9fd6-f730-4739-a1b1-bca707133088.jpgLeiden: Crowdfunding video Binanox (2022) [English]Crowdfunding video of Binanox from iGEM Leiden 2022. Special thanks to Anna Lee for helping us film and edit the crowdfunding video and Didi Spaans for her help with the audio. Lastly, we are very grateful to everyone who shared our video and messaged with others, helping to make this crowdfunding a success. https://2022.igem.wiki/leidenhttps://static.igem.org/peertube/streaming-playlists/hls/98f4c0da-ce6d-458a-9654-0159f832ff1f/a47db7ac-6a37-4a81-a99d-c1f7b884204d-master.m3u8https://video.igem.org/videos/embed/jTu7xMJXaYKkUV2CJAbR4v1130352022-10-11T17:56:50.545ZNanoparticlesCrowdfundingManufacturingLeidenUniversityYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qKToLEAp8H1gN5ymrrFbXmhttps://video.igem.org/lazy-static/thumbnails/662073b8-e735-4fa7-87e1-b5dc568d9da1.jpgNTHU_Taiwan: Education Video ep1-English version (2022) [English]We aimed to promote synthetic biology to the public by making short, simple videos and pictures which are released on either Youtube, Instagram, or Facebook. NTHU_Taiwan wiki: https://2022.igem.wiki/nthu-taiwan/communicationhttps://static.igem.org/peertube/streaming-playlists/hls/c87bfb54-7227-4383-b064-4d4d6a5cd83a/c6bea279-ef77-4b50-95a4-6658e02d1026-master.m3u8https://video.igem.org/videos/embed/qKToLEAp8H1gN5ymrrFbXm153022022-10-11T18:59:25.098ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sa1w2tqVs12vASxsw3SQJihttps://video.igem.org/lazy-static/thumbnails/cf2d643d-d2e5-4940-9bc7-6ae57cbf309e.jpgTecCEM: Reflexion Human Practices (2022) [English]A video that TecCem created showing the refexion about doing human practices. https://static.igem.org/peertube/streaming-playlists/hls/d3cf9e3d-2b7c-47c2-b7d2-4442cc806905/29c373a9-b493-48e2-ac4e-a0fd8b3313f3-master.m3u8https://video.igem.org/videos/embed/sa1w2tqVs12vASxsw3SQJi730242022-10-11T19:15:00.592ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vWVLU5h5xdtNSFwoWPm58Yhttps://video.igem.org/lazy-static/thumbnails/27a6fe13-36f0-49b0-ae15-6ae563075a14.jpgSZU-China: Intelligent Farm (2022) [English]This video is for display of our app-Intelligent Farm, which is expected used by our customers. This video will be placed in Software. Wiki link: https://2022.igem.wiki/szu-china/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/f28452fd-e333-4f79-855a-aba955b346ae/3a14f4a1-afdd-4654-824d-014f0c941c6f-master.m3u8https://video.igem.org/videos/embed/vWVLU5h5xdtNSFwoWPm58Y350052022-10-11T19:10:57.030ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/g7pDHsHrq1APHLusf91KDRhttps://video.igem.org/lazy-static/thumbnails/1e760a12-3e75-45d5-8c2e-fc73945c4c3e.jpgTecCEM: Collab dengue (2022) [English]A video that TecCEM created for collaboration section.https://static.igem.org/peertube/streaming-playlists/hls/7a5e1e14-fe8c-489e-aa01-966431567f5f/3b31765c-af38-4f7d-a2d8-a82e9b54580c-master.m3u8https://video.igem.org/videos/embed/g7pDHsHrq1APHLusf91KDR141032022-10-11T19:15:54.665ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/oTurjyJLg8J1YCzbB7HLKshttps://video.igem.org/lazy-static/thumbnails/b2cb8f6d-c0cf-404d-9656-9987768b3cd2.jpgCU_Egypt: Bactorito comic book (2022) [English]A mini comic book by team CU_Egypt with a voice over describing simply the concept of synthetic biology, plasmid and recombinant DNA.https://static.igem.org/peertube/streaming-playlists/hls/b95981e7-78c3-4866-8041-718f0d57ecb0/4cd865b6-11fa-4f72-93e5-33a7a8dd3fba-master.m3u8https://video.igem.org/videos/embed/oTurjyJLg8J1YCzbB7HLKs1660182022-10-11T19:25:09.049ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/gp1WZkHQC8tgkw8dCg9b6xhttps://video.igem.org/lazy-static/thumbnails/f345fbc6-a86f-4184-8202-8b289bd324e7.jpgSZU-China: Introduction for our online building activity (2022) [English]This video is a brief introduction for our online Human practices. This video is placed in Education & Communication. Wiki link: https://2022.igem.wiki/szu-china/communication https://2022.igem.wiki/szu-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/7cafc558-b300-4c57-8466-0541230ba8d9/c75be4c5-f851-434a-b7f8-bb125769990e-master.m3u8https://video.igem.org/videos/embed/gp1WZkHQC8tgkw8dCg9b6x1430162022-10-11T19:41:36.383ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/niW1sUDBRtyYdiG7KCRiV6https://video.igem.org/lazy-static/thumbnails/09de55d2-bcfd-4ef7-8139-48dc7593ae4e.jpgTecCEM: iGEM subtitulado (2022) [English]A video that TecCEM created for the collaboration partshttps://static.igem.org/peertube/streaming-playlists/hls/ac90d6ed-81ef-47e6-bc44-4366835587b3/9e5eac1b-9882-4250-9baa-77881c2b0231-master.m3u8https://video.igem.org/videos/embed/niW1sUDBRtyYdiG7KCRiV6598012022-10-11T19:34:17.745ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qEUsJTJtn2iX5AkByDUigchttps://video.igem.org/lazy-static/thumbnails/9e9373f4-3e17-448c-ac75-a353a05bba36.jpgSZU-China: Video 1. Field application of TACE (2022)This video filmed in the lab shows our field application of TACE-our product. This video is placed in Design. wiki link: https://2022.igem.wiki/szu-china/designhttps://static.igem.org/peertube/streaming-playlists/hls/c7c9ebdd-f969-481b-9c73-81999bd66a85/67a61477-4696-4c19-ab64-c8c1c32a95b2-master.m3u8https://video.igem.org/videos/embed/qEUsJTJtn2iX5AkByDUigc560302022-10-11T19:35:46.862ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ihf8gB16MuQ1YhuKoCfcn4https://video.igem.org/lazy-static/thumbnails/d05277c5-2328-4db0-9599-619749b08a58.jpgSZU-China: Video Function Process of 3mm TACE2.0 (2022)This video is a display of our porduct-TACE2.0. This video is placed in Products. Wiki link: https://2022.igem.wiki/szu-china/producthttps://static.igem.org/peertube/streaming-playlists/hls/8beff66b-ce9c-4cf8-93ca-8539802fa841/f1cebe68-674f-4e60-8f3a-7e5cbb526566-master.m3u8https://video.igem.org/videos/embed/ihf8gB16MuQ1YhuKoCfcn428032022-10-11T19:36:05.416ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dwkhpgG7sUSaSJUbaXdvKwhttps://video.igem.org/lazy-static/thumbnails/265bc325-725e-4f98-a96c-a691f9c7d6eb.jpgSZU-China: Homepage (2022)This video is placed in Home. Wiki link: https://2022.igem.wiki/szu-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6569dc46-c7a2-4f77-83fc-c00465b44460/77a1d68f-f1d0-4b9a-8415-02f55e30ad88-master.m3u8https://video.igem.org/videos/embed/dwkhpgG7sUSaSJUbaXdvKw10042022-10-11T19:45:26.430ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aso1joGA6B8zsYM4VPyJ1dhttps://video.igem.org/lazy-static/thumbnails/8a9c80b0-7fd6-4017-81f9-4b9e2e239cae.jpgQueens_Canada: Filter time-lapse (2022) [English]Time lapse of our prototype device testing with dirty water and boiling https://static.igem.org/peertube/streaming-playlists/hls/4c9125b6-29fa-41fc-a33b-159ed8bb6044/a5d28c06-bbc0-4411-98ef-073ae41f3fd2-master.m3u8https://video.igem.org/videos/embed/aso1joGA6B8zsYM4VPyJ1d250162022-10-11T19:48:35.301ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4vdE1dUMRtc8oqFafJCNvJhttps://video.igem.org/lazy-static/thumbnails/6846507e-3101-4b24-a948-8934bfe697f6.jpgSZU-China: LAMP-LFD detection (2022) [English]This video is the display of how our LAMP-LFD works. This video is placed in Implementation, Products and Design https://2022.igem.wiki/szu-china/implementation https://2022.igem.wiki/szu-china/product https://2022.igem.wiki/szu-china/designhttps://static.igem.org/peertube/streaming-playlists/hls/1c5fc8cc-fc85-4655-95fa-a915adf38df4/d8893324-9170-4ec4-9ad8-02e6c5db31c4-master.m3u8https://video.igem.org/videos/embed/4vdE1dUMRtc8oqFafJCNvJ510302022-10-12T10:02:39.555ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7Cc5NX3KoNusCXoUd1HMDshttps://video.igem.org/lazy-static/thumbnails/455cbdc1-b47b-4461-8a75-b43df55f7140.jpgQueens_Canada: Dr. Brown podcast (2022) [English]Podcast serise with ASU iGEM - Dr. Brown https://static.igem.org/peertube/streaming-playlists/hls/35a47011-e771-4787-80a7-b3f27f637eb8/6767b005-9167-4975-a038-11a44010c4d9-master.m3u8https://video.igem.org/videos/embed/7Cc5NX3KoNusCXoUd1HMDs1630012022-10-11T20:19:30.554ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xkTMkySnmQEZfMc18hst9Yhttps://video.igem.org/lazy-static/thumbnails/e5f8c98e-1314-488a-a4a6-e673885ca158.jpgPatras_Medicine: Biosafety Video (2022) [English]Biosafety Videohttps://static.igem.org/peertube/streaming-playlists/hls/fdd25778-8821-4ba2-bd9c-71b1d44d95c4/a96b30b3-3122-46a7-b679-47d3e17d4c29-master.m3u8https://video.igem.org/videos/embed/xkTMkySnmQEZfMc18hst9Y940172022-10-11T21:48:58.977ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eFZdoJcfJHeBatJ26mKPujhttps://video.igem.org/lazy-static/thumbnails/d2a344f7-34c1-446e-93d4-95952c71b6cc.jpgQueens_Canada: Dr. Dr. Rosa Krajmalnik-Brown Podcast (2022) [English]Podcast serise with ASU iGEM - Dr. Rosa Krajmalink-Brownhttps://static.igem.org/peertube/streaming-playlists/hls/6edc119b-4f0c-4517-8d36-738430e0ae5e/dbc81e39-c63c-4f0e-8090-71147fca5c21-master.m3u8https://video.igem.org/videos/embed/eFZdoJcfJHeBatJ26mKPuj1603042022-10-11T20:34:50.521ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qtrrkeCjGkoVav55ovCHYChttps://video.igem.org/lazy-static/thumbnails/1c1791ad-b2ec-4a8c-86c9-f3bd72b07ae4.jpgQueens_Canada: Dr. Sundaram Podcast (2022) [English]Podcast serise with ASU iGEM - Dr. Sundaram https://static.igem.org/peertube/streaming-playlists/hls/c63015e8-ebfa-457b-95f5-91f4635a69c8/b93ffd74-346a-457c-928c-a0ca1c0d5415-master.m3u8https://video.igem.org/videos/embed/qtrrkeCjGkoVav55ovCHYC2192002022-10-11T21:12:34.626ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/iD2a7d8Z2iazc51HMhTGCzhttps://video.igem.org/lazy-static/thumbnails/cccd4e61-cd46-4603-b6f2-d3ef751949d2.jpgNTHU_Taiwan: 3D Microneedle Patch (2022) [English]NTHU_Taiwan wiki Hardware page: https://2022.igem.wiki/nthu-taiwan/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/8ed696f9-b32e-4096-975f-c59509910841/d3912b87-ede0-4bc2-9284-bf54f607b5c9-master.m3u8https://video.igem.org/videos/embed/iD2a7d8Z2iazc51HMhTGCz70292022-10-11T21:05:14.052ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/x7meN9rJo7CFK3yBm7pKhahttps://video.igem.org/lazy-static/thumbnails/196e90d2-be29-4d23-89ed-beca8f14e533.jpgQueens_Canada: Dr. Varman Podcast (2022) [English]Podcast serise with ASU iGEM - Dr. Varman https://static.igem.org/peertube/streaming-playlists/hls/fbee3bac-8520-4291-b8a3-1f27572ff7ed/fa3c6b6a-50ad-4420-bdd1-a3d5980545a6-master.m3u8https://video.igem.org/videos/embed/x7meN9rJo7CFK3yBm7pKha1233032022-10-11T21:42:01.235ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jLNVabnW8LbnmqMZkAr78ahttps://video.igem.org/lazy-static/thumbnails/c778d6e6-eb40-4d5c-b111-7899909cc13f.jpgIISc-Bengaluru: toluene_comparison (2022)Shows the docking site of Toluene on the enzyme Toluene Dioxygenase. The docked position is shown in light green, and the crystallographic position is in orange. The mesh indicates the predicted active site from AutoLigand. The orange sphere the Fe2+ ion.https://static.igem.org/peertube/streaming-playlists/hls/98062295-7e65-41ef-984c-f9aae25bf61f/82e8ecb2-9099-4413-881d-6e9282120644-master.m3u8https://video.igem.org/videos/embed/jLNVabnW8LbnmqMZkAr78a4052022-10-11T22:17:57.624ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fdsXe9ieUrSyK1vt5YNVZ4https://video.igem.org/lazy-static/thumbnails/5cd2b1c7-a0a4-4ac5-8f9e-20fd342cf50a.jpgGreatBay_SCIE: Exhibition Video (2022) [English]To expand the audience to high school students, our team held a variety of activities to introduce synthetic biology to every student. GreatBay_SCIE opened up an exhibition on the campus. Our group designed 5 posters, concerning the technology, application, and ethic issues of synthetic biology, and also the exhibition of the background and summary of our project - FabRevivo. https://static.igem.org/peertube/streaming-playlists/hls/731d79f2-3fc7-4483-9da8-964fcc2561d1/4ca1b07c-e1ed-4de0-a0e2-eaa4d05d8fa3-master.m3u8https://video.igem.org/videos/embed/fdsXe9ieUrSyK1vt5YNVZ430002022-10-11T22:38:37.694ZEducationExhibitionYESiGEM 2022 TeamsNOhttps://video.igem.org/w/oYWLLPvdu2uiWNUgKY3b9ahttps://video.igem.org/lazy-static/thumbnails/b8298b7c-a232-49d1-afd1-1b29cc0f7788.jpgUni-Hamburg: Project description (2022) [English]Short Video for project description page explaining the principlehttps://static.igem.org/peertube/streaming-playlists/hls/ba1c74bf-a827-48c5-99a2-d1dc920d34b1/33af32f9-4e30-4fbd-8e02-5bb6f085b6f6-master.m3u8https://video.igem.org/videos/embed/oYWLLPvdu2uiWNUgKY3b9a300332022-10-11T23:11:49.834ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/43LM3oJVg1wxAsbFNoguHfhttps://video.igem.org/lazy-static/thumbnails/5faa7bfe-3875-4583-969e-c65ec68ef49e.jpgPatras_Medicine: Biosafety (2022) [English]Biosafety https://static.igem.org/peertube/streaming-playlists/hls/18ae7f81-18f7-4b69-be8a-a7ad5911da80/ca8ead78-5e31-4c6a-9722-22f6e9701d4e-master.m3u8https://video.igem.org/videos/embed/43LM3oJVg1wxAsbFNoguHf940182022-10-11T23:14:41.473ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3rdmZbANzv61JcxQAgcbcbhttps://video.igem.org/lazy-static/thumbnails/d802493b-cbbd-4b4d-a8ad-327f9f89ef6e.jpgTecCEM: biosensor_parts (2022)An explode vision of the biosensor by iGEM TecCEM.https://static.igem.org/peertube/streaming-playlists/hls/13b77d64-93e9-4d50-81a7-04b603ec0158/f78f4327-994c-4870-be40-91bb9bd7a2c2-master.m3u8https://video.igem.org/videos/embed/3rdmZbANzv61JcxQAgcbcb12042022-10-11T23:23:08.369ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dM52eGd95ekGBTemci29SGhttps://video.igem.org/lazy-static/thumbnails/43538714-8794-406b-ad16-91fd98bd1e32.jpgUni-Hamburg: Meetup Summary (2022) [English]Summary of our Meetup https://static.igem.org/peertube/streaming-playlists/hls/67789c9e-5c1e-4303-bbb9-441ff8aa8934/b40f309b-a2d7-4c5d-8433-280c18042890-master.m3u8https://video.igem.org/videos/embed/dM52eGd95ekGBTemci29SG740362022-10-11T23:21:27.713ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qPFLo96neSmnx3Kxvxgg1dhttps://video.igem.org/lazy-static/thumbnails/194ccea7-66d2-4e3c-9bb1-c950432e10d6.jpgPatras_Medicine: Product Video (2022) [English]Product Videohttps://static.igem.org/peertube/streaming-playlists/hls/c903ca8c-7d12-4ad6-8a7b-5ab4f7dc56d0/febba84f-3753-4f49-94a9-12931da5fea4-master.m3u8https://video.igem.org/videos/embed/qPFLo96neSmnx3Kxvxgg1d1130392022-10-11T23:27:20.938ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/f1hu3pDq2mGJLJPWLbd1GYhttps://video.igem.org/lazy-static/thumbnails/4b97223d-61f1-4bf5-8ca8-a9fcbcb48fca.jpgTecCEM: Biosensor_explodeview (2022)Explode view of the biosensor made by iGEM TecCEMhttps://static.igem.org/peertube/streaming-playlists/hls/716a197b-92f8-430e-9326-c5c2bf460648/e20bba2f-ee2d-437f-a6a7-71f867e52901-master.m3u8https://video.igem.org/videos/embed/f1hu3pDq2mGJLJPWLbd1GY120262022-10-11T23:33:10.653ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3Wq6sVHSMgEWgjHxebSF7uhttps://video.igem.org/lazy-static/thumbnails/dcb5850b-c86c-4ea7-a339-eb72adcbcbc1.jpgTecCEM: Social Media (2022) [English]A video created by IGEM TecCEM about our social media. https://static.igem.org/peertube/streaming-playlists/hls/17cb4a1b-b303-4c66-a366-137bb12f59c4/24e977b9-6108-464e-a9f5-3d0f7e9839ab-master.m3u8https://video.igem.org/videos/embed/3Wq6sVHSMgEWgjHxebSF7u31022022-10-11T23:35:29.667ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vX95GQKzxSM4NazXp5kFedhttps://video.igem.org/lazy-static/thumbnails/65138032-759c-4328-8974-368c3aac6639.jpgNYCU_Formosa: Role-Playing Game: Biomaze (2022) [English]NYCU_Formosa: Role-Playing Game: Biomaze (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/f28be89d-2af3-4ea2-9c41-0a04e2431552/878b4149-b825-4510-88c3-ef6cca14f2fd-master.m3u8https://video.igem.org/videos/embed/vX95GQKzxSM4NazXp5kFed605032022-10-12T00:22:24.022ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7xyc4uwxNqUpVAdmvo7kXchttps://video.igem.org/lazy-static/thumbnails/af0b200a-1b9c-4768-9a9e-1c3aafd125ff.jpgUAM: video for background (2022)Video for the background of the wikihttps://static.igem.org/peertube/streaming-playlists/hls/34feba1f-e9e4-4a5e-843e-6197226f509d/f553d3c5-9715-4a0e-a77c-c5122d85879d-master.m3u8https://video.igem.org/videos/embed/7xyc4uwxNqUpVAdmvo7kXc30032022-10-12T01:39:44.502ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dcLgn31qEq5aNkACaJy2Kohttps://video.igem.org/lazy-static/thumbnails/a2058f06-399c-405b-8a3b-73192de5554d.jpgSheffield: Toroidal Bioreactor Mixing Demo (2022) [English]Check out some slow-mo footage of our bioreactor mixing a colored dye into solution!https://static.igem.org/peertube/streaming-playlists/hls/62d21fe4-f661-4d93-a022-b97954a72c38/b75bb9ed-684f-4baf-8be2-7a2276d9e5c5-master.m3u8https://video.igem.org/videos/embed/dcLgn31qEq5aNkACaJy2Ko260312022-10-12T01:54:12.874ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/gtifhLL8Rg6SAhW4RJ19nNhttps://video.igem.org/lazy-static/thumbnails/628368dc-e644-42c0-87ba-0846e9b3fc76.jpgConcordia-Montreal: Interview with Dr Barnabe (2022) [English]An interview with Dr Barnabe.https://static.igem.org/peertube/streaming-playlists/hls/7d48ca46-9b69-4c78-956d-1c008e8fe410/55c78d12-5c34-402f-8e06-954c3b57ac64-master.m3u8https://video.igem.org/videos/embed/gtifhLL8Rg6SAhW4RJ19nN2324042022-10-12T01:44:09.546ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kv76oDASRLujSCjhqxSsqJhttps://video.igem.org/lazy-static/thumbnails/1383e1c8-2196-40b4-966c-8cc8ffd588ca.jpgSafeguarding Modern Bioscience and Biotechnology with IBBISThe International Biosecurity and Biosafety Initiative for Science (IBBIS) is a new international entity that focuses on reducing biological risks associated with advances in technology. IBBIS will work collaboratively with global partners to strengthen biosecurity norms and develop innovative tools to uphold them. IBBIS will undertake this work to safeguard science and reduce the risk of catastrophic events that could result from deliberate abuse or accidental misuse of bioscience and biotechnology. IBBIS’ initial work will focus on developing biosecurity tools and best practices for DNA synthesis providers around the world to prevent the misuse of DNA synthesis technology, but IBBIS’ activities will broaden over time.https://static.igem.org/peertube/streaming-playlists/hls/9dedf572-6b24-49ae-813d-13db80e3d402/b72de818-74e9-47b1-9220-49975415032a-master.m3u8https://video.igem.org/videos/embed/kv76oDASRLujSCjhqxSsqJ3561062022-10-12T02:14:25.703ZYESiGEM CommunityNOhttps://video.igem.org/w/tj476fv1jF13mmTEoMtVXghttps://video.igem.org/lazy-static/thumbnails/eba1777a-3017-4387-bf43-6c879fa8036f.jpgConcordia-Montreal: Interview with Dr Villemur (2022) [English]Interview with Dr Villemurhttps://static.igem.org/peertube/streaming-playlists/hls/dd2c0b92-d88c-4c45-828d-ee322dfa67c1/102ed790-86b9-420b-9bdc-b83580b69e30-master.m3u8https://video.igem.org/videos/embed/tj476fv1jF13mmTEoMtVXg3097012022-10-12T02:35:16.613ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/9DDwkLMxwvB2T12gRgLM26https://video.igem.org/lazy-static/thumbnails/fec5fe2f-af08-48b6-985d-2ec97c00db1a.jpgSheffield: Bioreactor OD Demo (2022) [English]Here we demonstrate our functioning infrared OD sensor by showing the difference in absorbance between a sterile tube of media and a fully-grown culturehttps://static.igem.org/peertube/streaming-playlists/hls/460ac0d2-9b12-428e-ab50-20bf6d25d843/2543a82a-d71a-4dd6-a4b5-5ba0d4a4f15d-master.m3u8https://video.igem.org/videos/embed/9DDwkLMxwvB2T12gRgLM26220172022-10-12T02:39:35.675ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8LXXyssgys2qteWY425KuYhttps://video.igem.org/lazy-static/thumbnails/7c2333fe-4506-45b0-ac3e-13733b17e0c5.jpgCosta_Rica: A glimpse into Chassei’s Integrated Human Practice (2022) [English]Hi, we are the Costa Rican iGEM team, and we´re happy to share our journey through Integrated Human Practices. This journey taught us the importance to go out of the lab and talk with the people, make alliances and work together to generate real impact...https://static.igem.org/peertube/streaming-playlists/hls/3ef72e8a-2bc0-48fa-8bae-5d545122ba2c/664d57c3-80ac-4557-928a-3bc072002c35-master.m3u8https://video.igem.org/videos/embed/8LXXyssgys2qteWY425KuY122062022-10-12T02:14:29.800Zhuman practicechasseicosta ricalactobacillus caseiintegratedYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ousjKCMVwcv8XMtMoY2bZAhttps://video.igem.org/lazy-static/thumbnails/da80ef0d-3ea7-453a-9727-b849a7de3de0.jpgCareers in Governance, Policy and Diplomacy for ScientistsA discussion was held around careers in governance, policy or diplomacy? We hosted Nancy Connell and Stephanie Norlock to share their career paths in the field, the challenges that they faced, their biggest takeaway working in governance and policy and many more!https://static.igem.org/peertube/streaming-playlists/hls/b6221930-b5c9-4b57-bbe9-d0c1266c6d9c/efb65c51-e486-45aa-96d9-bbfa276d99f7-master.m3u8https://video.igem.org/videos/embed/ousjKCMVwcv8XMtMoY2bZA36010152022-10-12T02:36:44.190ZYESiGEM CommunityNOhttps://video.igem.org/w/32RQ96pTzvTTyVqoHuXStphttps://video.igem.org/lazy-static/thumbnails/26a27d7b-e28c-4610-9e0f-b0bcbabe74cb.jpgUPenn: Phocl-NES Visualization (2022)Phocl (photocleavable protein) is originally bound to a nuclear exclusion sequence (NES). Once light is shone the phocl breaks and NES is removed and there is diffusion into the nucleus. https://2022.igem.wiki/upenn/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/1074badb-9fb2-4683-8bc5-512e39a108b5/1b0d5d72-9b8c-43df-9941-8c5a11c8d355-master.m3u8https://video.igem.org/videos/embed/32RQ96pTzvTTyVqoHuXStp30462022-10-12T02:36:45.915ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/c5XkUqDTsKhqMmgd4S5awwhttps://video.igem.org/lazy-static/thumbnails/b46f9e66-e21d-4009-adaa-3c50fc6816e9.jpgGovernance and Policy Weekend Kick-OffThrough the 3 days event, participants were able to map policies and create solutions on Biodiversity and Biosecurity through the Global Policies Hackathon, established positions and connected with biodiversity youth organizations in the Biodiversity Youth Forum and communicated and defended their ideas with other synbio enthusiasts in the Synbio Debates.https://static.igem.org/peertube/streaming-playlists/hls/59c59b55-f663-4269-87dc-1c284088b24e/633bc454-1c58-40ab-a5d0-9b926d3740b1-master.m3u8https://video.igem.org/videos/embed/c5XkUqDTsKhqMmgd4S5aww935022022-10-12T02:42:32.311ZYESiGEM CommunityNOhttps://video.igem.org/w/bBNUKg7gqQyJ1GMGgQf5UYhttps://video.igem.org/lazy-static/thumbnails/e20788c4-fbca-4294-a14a-3d56c96e82d4.jpgBNU-China: Basic Experiment Operation And Labortary (2022)In the video, 2022BNU-China shows the equipment in the lab, and the basic process of experimental operations.https://static.igem.org/peertube/streaming-playlists/hls/55fb53d7-2a55-4102-903a-f054712148a0/a20d5fba-972d-4216-bc93-9475e99b05d1-master.m3u8https://video.igem.org/videos/embed/bBNUKg7gqQyJ1GMGgQf5UY12042022-10-12T02:41:25.978ZlabexperimentYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nHPKiEWetXsweDoQpND5Sihttps://video.igem.org/lazy-static/thumbnails/96aeab8f-0191-4e96-9c5d-c32dc893d579.jpgCosta_Rica: iGEM Interviews - Whats is the importance of synthetic biology in the bio medical are...During the visit of the Chassei team to the Life Science Center for Innovation of the Clínica Bíblica Hospital, the head of research and innovation, Jose Camacho, told us about the impact that synthetic biology can have in the biomedical area.https://static.igem.org/peertube/streaming-playlists/hls/afe6d4d2-87fa-461e-9567-fa56a30073fd/3d45654d-fe05-4daa-8a16-1af520d2528b-master.m3u8https://video.igem.org/videos/embed/nHPKiEWetXsweDoQpND5Si73042022-10-12T03:18:35.199ZhealthIntegratedHuman practicebiomedicalinterviewYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mfskU3Gf6N9F8fH4hRaPaChttps://video.igem.org/lazy-static/thumbnails/f75f111c-c48d-42c1-bbfc-8de4090dc6e0.jpgCosta_Rica: What is the importance of linking industry, universities and projects like iGEM (2022...During the visit of the Chassei team to the Life Science Center for Innovation of the Clínica Bíblica Hospital, the entrepreneurship manager, Sofía Miranda, explained us the importance of linking industry, universities, and projects such as iGEM.https://static.igem.org/peertube/streaming-playlists/hls/a3fb6ba3-a878-45a1-b7a0-393037b15282/0561a7bc-9c10-4676-a8ba-6468247de9a6-master.m3u8https://video.igem.org/videos/embed/mfskU3Gf6N9F8fH4hRaPaC41042022-10-12T04:08:23.844ZMedicalLinkingIndustryHealthInterviewYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hJFRT8ikvxzjNdw5tuv8jvhttps://video.igem.org/lazy-static/thumbnails/58edbf8f-cdb2-4b2a-b61e-61e73886dbab.jpgSheffield: Bioreactor Pumping Test (2022) [English]Here we demonstrate our bioreactor's peristaltic pump system for adding fresh media to a culture!https://static.igem.org/peertube/streaming-playlists/hls/87880581-e5fd-4059-a102-d85b99bc5855/ded19366-2794-4f6a-b355-18e9bda775c2-master.m3u8https://video.igem.org/videos/embed/hJFRT8ikvxzjNdw5tuv8jv260222022-10-12T04:12:45.855ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pBVQdm7Nab57PxU2Nkkm4whttps://video.igem.org/lazy-static/thumbnails/5b256cf5-feb5-41c1-89e5-baf22669d780.jpgIISER_TVM: THP Structure Prediction (2022) [English]Predicting of THP structure using DeepMind AlphaFoldhttps://static.igem.org/peertube/streaming-playlists/hls/bf466554-7a51-4bb4-ad19-d0aaa5f8f8c4/0b6217a0-79b4-42b5-b6b3-19cf0f6a3749-master.m3u8https://video.igem.org/videos/embed/pBVQdm7Nab57PxU2Nkkm4w40212022-10-12T04:28:38.631ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3kfvp7GBpk4fHMMjAbKQ7zhttps://video.igem.org/lazy-static/thumbnails/e28fa96d-21ba-489e-97e2-b71f609c2e3f.jpgCosta_Rica: IICA´s visit (2022) [English]Synthetic Biology and Bioeconomy: How to be at the forefront of new technologies? On April 28th, in coordination with the Costa Rican Chamber of Industries (CICR), we invited representatives of the Inter-American institute for Cooperation on Agriculture (IICA) of the Organization of American States (OAS) to visit the Bioentrepreneurship Laboratory, where our iGEM project and other biotechnological ventures are born. In addition, at the facilites of the Center for Research in Biotechnology (CIB), home of the bioeconomy projects developed by the Technological Institute of Costa Rica (ITCR), we held a conference on synthetic biology and its importance for the economic development of the country. The popularization of synthetic biology is our responsability as agents of change.https://static.igem.org/peertube/streaming-playlists/hls/12e25960-6599-4ddc-92d5-cb10a2139ed5/7a2a43f4-0cd3-48da-b6bc-c27318f0ced1-master.m3u8https://video.igem.org/videos/embed/3kfvp7GBpk4fHMMjAbKQ7z156012022-10-12T04:57:29.014ZIICAEventVisitYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mgaNUzoveGawGHyZsrtKRShttps://video.igem.org/lazy-static/thumbnails/b0484508-381e-4abe-a436-56fa62aeceba.jpgHopkins: PCR for dummies (2022) [English]Guys, there's no such thing as a not fun PCR. This video is for any undergrad who wants to run their own polymerase chain reaction (PCR)! Covers the science behind PCR, a protocol tutorial, and how to troubleshoot your primers. Credit: Sheryl Lin, Sreenivas Eadarahttps://static.igem.org/peertube/streaming-playlists/hls/a414f97f-1d82-40d1-892d-6f1fccd428a0/9f4289df-47ba-4c10-b46f-238e98122aea-master.m3u8https://video.igem.org/videos/embed/mgaNUzoveGawGHyZsrtKRS306062022-10-12T05:07:47.748ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pYvxbJygpwFDTpyD3dBb8Mhttps://video.igem.org/lazy-static/thumbnails/12eebd66-cbe7-4eee-a1a2-ec9c6ca7b32d.jpgToronto: BioTraveller (2022)This is a brief introduction of the Roblox game Bio-traveller which the high school students played to learn about synthetic biology. https://static.igem.org/peertube/streaming-playlists/hls/c2260b25-4b75-4c93-abd9-0c3c910fa8e3/357ef748-4d8f-4076-b32e-caa6115c1e49-master.m3u8https://video.igem.org/videos/embed/pYvxbJygpwFDTpyD3dBb8M460222022-10-12T05:03:38.768ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3NzMagUYg6YE7tn6Hq6vVghttps://video.igem.org/lazy-static/thumbnails/3bc27cc5-25a9-40d0-89fb-d9ba594cdad6.jpgLambert_GA: Using Micro-Q (2022) [English]Video describing how to use Micro-Q. Video recorded by Madhav Gulati & Vineeth Sendilraj (Lambert_GA). https://2022.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/16b34ebb-d4ba-48bd-b03c-26a8ab2696cd/9251e951-a489-4544-8d6e-a1f37bfdec02-master.m3u8https://video.igem.org/videos/embed/3NzMagUYg6YE7tn6Hq6vVg4601692022-10-12T05:09:48.439ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ezCf3Yvfkb2PW4DphUiuNShttps://video.igem.org/lazy-static/thumbnails/fa81609b-9009-4166-b0f9-fa18de8647d1.jpgHopkins: Miniprep for dummies (2022) [English]A miniprep for mega science? This video is for any undergrad who wants to run their own miniprep (DNA extraction from E. coli)! Covers the science behind minipreps, a protocol tutorial, and how to maximize purity and concentration in your product. Credit: Tiara Safaei, Sheryl Linhttps://static.igem.org/peertube/streaming-playlists/hls/6df8ae9c-ae9d-42e8-8aae-7d5caff60fb6/7cb607eb-0dd1-4eb1-bf9e-77d4ee3b507f-master.m3u8https://video.igem.org/videos/embed/ezCf3Yvfkb2PW4DphUiuNS255092022-10-12T05:17:44.422ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jXHbdG38krtxq4j7WCGQdxhttps://video.igem.org/lazy-static/thumbnails/bf1c21ef-b336-486f-b177-84c27feff0be.jpgHopkins: Gel electrophoresis for dummies (2022) [English]Gels are the bread part of the bread and butter of molecular biology. This video is for any undergrad who wants to run their own gel electrophoresis! Covers the science behind gel electrophoresis and a protocol tutorial. Credit: Siyona Mishra https://static.igem.org/peertube/streaming-playlists/hls/998bc769-ab70-4500-98d9-32ee803daf57/714739f5-37f8-4c69-9fca-354308c61168-master.m3u8https://video.igem.org/videos/embed/jXHbdG38krtxq4j7WCGQdx390032022-10-12T05:49:59.818ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kMNyqtAcJZDdWZX1EJCW1Dhttps://video.igem.org/lazy-static/thumbnails/6738553d-2bd0-4604-af23-65d312f72b6b.jpgHopkins: What is a chassis? (2022) [English]Engineering genetic constructs into organisms is at the heart of synthetic biology. What is a chassis organism, and how do you select the right one to use? Made by William and Mary iGEM! Part of the 2022 iGEM Youtube collaboration series between ...https://static.igem.org/peertube/streaming-playlists/hls/a042cc14-d67d-441b-8504-1d84297c8c3d/eb78a250-30a3-4475-8673-7bd6edcc1526-master.m3u8https://video.igem.org/videos/embed/kMNyqtAcJZDdWZX1EJCW1D360062022-10-12T05:54:03.889ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7g1PKmdD6n6KEwbry4s25jhttps://video.igem.org/lazy-static/thumbnails/7c68ad3b-e9f6-44bd-9dad-5d7d640097dc.jpgIISER-Pune-India: Sugreev (2022) [Hindi]Sugreev describes his experience with waterlogging.https://static.igem.org/peertube/streaming-playlists/hls/32af7eef-a166-4038-afbf-230bc8cb949e/9d8e0ead-992d-40dd-845e-38dbcb64e0c4-master.m3u8https://video.igem.org/videos/embed/7g1PKmdD6n6KEwbry4s25j266002022-10-12T05:32:54.340ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xpjuxanDc13bjP7Qvkgd9vhttps://video.igem.org/lazy-static/thumbnails/480bc02e-3939-48aa-9aba-861c25e283f1.jpgIISc-Bengaluru: toluene_docking (2022)Video displaying the docked position of Toluene on Toluene dioxygenase compared with the crystallographic position. The protein backbone is displayed in green, with light green toluene showing the docked position. The orange toluene represents the crystallographic position. Meanwhile the mesh is the predicted active site and the large orange sphere is the Fe(II) ion.https://static.igem.org/peertube/streaming-playlists/hls/fe4ccd20-e2eb-425b-90a4-2bbfc311d945/d6caabac-1d35-44eb-93e8-ba850ff66693-master.m3u8https://video.igem.org/videos/embed/xpjuxanDc13bjP7Qvkgd9v4022022-10-12T05:35:59.654ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dtnJwri4e9yenKBQDFWj94https://video.igem.org/lazy-static/thumbnails/3f67d853-8cf6-4cbe-922e-d98fdc282bbf.jpgIISER-Pune-India: Amberlal (2022) [Hindi]Amberlal describes his experience with waterlogginghttps://static.igem.org/peertube/streaming-playlists/hls/650023a6-a15c-4e76-bf5d-2c7fc7a88cdb/afbeec76-a2db-4faf-a254-1b4c0cedeeff-master.m3u8https://video.igem.org/videos/embed/dtnJwri4e9yenKBQDFWj94185002022-10-12T05:36:03.410ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qn1gNpturFxw56CXcMrsfhhttps://video.igem.org/lazy-static/thumbnails/41fa6bf4-50d4-4393-94ed-5115769fb842.jpgIISER-Pune-India: Bindu Devi (2022) [Hindi]Bindu Devi describes her experience with waterlogginghttps://static.igem.org/peertube/streaming-playlists/hls/c54a1d69-88a5-4f43-9acc-ff9942335f3c/62ab40ab-23ac-4613-b780-2db78c7a3c55-master.m3u8https://video.igem.org/videos/embed/qn1gNpturFxw56CXcMrsfh203002022-10-12T05:36:56.281ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uoDNvqmYpn1gHBshi29gsThttps://video.igem.org/lazy-static/thumbnails/548fb4c9-8631-4e61-baa2-8774e896e5cb.jpgIISER-Pune-India: Durgesh (2022) [Hindi]Durgesh describes his experience with waterlogginghttps://static.igem.org/peertube/streaming-playlists/hls/e5e98aa8-b6bd-4ff4-b9d5-497d38216723/52ac0de3-14ca-48a5-9535-6f7752f85303-master.m3u8https://video.igem.org/videos/embed/uoDNvqmYpn1gHBshi29gsT147002022-10-12T05:37:43.375ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1oN1c5J9aad3NCWkDZ2WFthttps://video.igem.org/lazy-static/thumbnails/96378d49-a332-48c9-863a-af60515c1fb7.jpgIISER-Pune-India: Vinay (2022) [Hindi]Vinay describes his experience with waterlogginghttps://static.igem.org/peertube/streaming-playlists/hls/032eb6a6-732d-417d-acd5-6495a154c721/e9177ec2-9a0d-49dc-a4ef-d178d3ce2e2b-master.m3u8https://video.igem.org/videos/embed/1oN1c5J9aad3NCWkDZ2WFt141022022-10-12T05:39:33.273ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/imtXnDV4xrq22ANueTgUx6https://video.igem.org/lazy-static/thumbnails/56727412-22f8-4354-943f-2224d184f5f2.jpgIISER-Pune-India: Pappu (2022) [Hindi]Pappu describes his experience with waterlogginghttps://static.igem.org/peertube/streaming-playlists/hls/8c8775d7-c576-461d-a77a-539404f4d003/6772f006-3744-49b9-ab70-ed911d6a85fb-master.m3u8https://video.igem.org/videos/embed/imtXnDV4xrq22ANueTgUx6137022022-10-12T05:41:18.639ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/twnjT2euke4AagJmPpqWU5https://video.igem.org/lazy-static/thumbnails/d2d53217-8e35-43e5-9f32-7f6d3f003937.jpgIISER-Pune-India: Ram Nevas (2022) [Hindi]Ram Nevas describes his experience with waterlogging.https://static.igem.org/peertube/streaming-playlists/hls/dee43300-f2d4-4d96-8b7f-7d87b875c8f4/aec5b303-5a1d-4695-bd0d-a97076a59ec3-master.m3u8https://video.igem.org/videos/embed/twnjT2euke4AagJmPpqWU5125022022-10-12T05:43:25.486ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2m1cTAjKU1JbjzgrmF7dkqhttps://video.igem.org/lazy-static/thumbnails/809978fb-0704-45b8-b020-c94c5b7a00fc.jpgIISER-Pune-India: Haridev (2022) [Hindi]Haridev describes his experience with waterlogging.https://static.igem.org/peertube/streaming-playlists/hls/0ae423f0-a2aa-4f31-b799-2509062b53b6/3cd1a0d1-05c4-45b3-babe-10b899949be4-master.m3u8https://video.igem.org/videos/embed/2m1cTAjKU1JbjzgrmF7dkq255072022-10-12T05:45:22.750ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7Kxub5FPNH1Wvuhxj1oGYhhttps://video.igem.org/lazy-static/thumbnails/5cfbb5d3-048e-4e93-a8c8-ff1b7bffe693.jpgIISER-Pune-India: Saifu (2022) [Hindi]Saifu describes his experience with waterlogging.https://static.igem.org/peertube/streaming-playlists/hls/36ab37c5-6a1a-4a48-ad23-4c7b94123ed0/54246171-b35f-4533-a464-f39c144d44be-master.m3u8https://video.igem.org/videos/embed/7Kxub5FPNH1Wvuhxj1oGYh371002022-10-12T05:54:36.748ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pPqfDWbnXSaQcFkmvUbYjXhttps://video.igem.org/lazy-static/thumbnails/c7dcd84e-f9bd-4a40-adf2-d135c601af8c.jpgIISER-Pune-India: Prabhu Nath (2022) [Hindi]Prabhu Nathu describes his experience with waterlogginghttps://static.igem.org/peertube/streaming-playlists/hls/c0e117b4-a10b-47c0-822e-81e2adea359b/85eb9c36-05ee-4d47-9a3f-dca5d73e3c1b-master.m3u8https://video.igem.org/videos/embed/pPqfDWbnXSaQcFkmvUbYjX240002022-10-12T05:54:43.905ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ekVZfdNUmRePUBg96XWzwnhttps://video.igem.org/lazy-static/thumbnails/a2d42017-9bf8-4e63-8a72-c78b948339b8.jpgIISER-Pune-India: Sharda (2022) [Hindi]Sharda describes her experience with waterlogginghttps://static.igem.org/peertube/streaming-playlists/hls/6c0f3472-7f66-4388-adc6-2f9fc5e26605/543b416f-4f9d-4578-b605-edaf485e2198-master.m3u8https://video.igem.org/videos/embed/ekVZfdNUmRePUBg96XWzwn240002022-10-12T05:54:53.294ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sD4fJnK3Wz2pshy1R43W68https://video.igem.org/lazy-static/thumbnails/1fca22f6-a538-4e1a-a6c8-96068ee1d102.jpgCosta_Rica: CINDE´s visit (2022) [English]Synthetic Biology and Bioeconomy: How to be at the forefront of new technologies? A video resume about CINDE´s representatives visit to the Center for Research in Biotechnology (CIB) and the Bioentrepreneurship Laboratory in Costa Rica Institute of Technology (ITCR), where our iGEM project and other biotechnological ventures are born. https://static.igem.org/peertube/streaming-playlists/hls/d7ba2146-9af2-4cc5-b714-c288f81c7de1/4f28e49c-f5e1-4202-a62c-a50e6cb5fd23-master.m3u8https://video.igem.org/videos/embed/sD4fJnK3Wz2pshy1R43W68143032022-10-12T06:51:09.591ZechonomyvisitCINDEprofessionalsinterviewYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uJHPiVDmrHCu2kdu9GtM2nhttps://video.igem.org/lazy-static/thumbnails/05501cae-d6ff-47c9-8288-04d78c70804a.jpgTongji_Software: software website (2022)For ease of use, we provide a web interface and graphical pages of the sitehttps://static.igem.org/peertube/streaming-playlists/hls/e8b6e401-3e2d-46f5-ba53-38357560435b/4f3629dd-2c32-4754-9ca2-e9f5b3a5328b-master.m3u8https://video.igem.org/videos/embed/uJHPiVDmrHCu2kdu9GtM2n65052022-10-12T07:00:59.423ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/mm6wVLNL4rZvPm1RbXBdNLhttps://video.igem.org/lazy-static/thumbnails/25761137-e6fe-411f-95a0-fe080b80a0f3.jpgIISER_Bhopal: Home Animation (2022) [English]Animation for homepagehttps://static.igem.org/peertube/streaming-playlists/hls/a4c50efe-8ada-4f86-9d98-5ad78a655ab0/c74b84e7-cb2b-43c9-9b26-2f4c964f134f-master.m3u8https://video.igem.org/videos/embed/mm6wVLNL4rZvPm1RbXBdNL56002022-10-12T08:05:55.387ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8dzQjYRhPp2TUW1es7GrvThttps://video.igem.org/lazy-static/thumbnails/5d743aff-faef-49ca-9b7b-247f7e311692.jpgCosta_Rica: Synbio Workshop (2022) [Spanish]On Saturday, August 20th, we held the Synbio Workshop, a theoretical-practical synthetic biology workshop, where biotechnology, agronomy and biology students learned about the basic concepts of synthetic biology, as well as some of the techniques used in its processes. Involving students from different careers is key to the development of future synthethic biology projects.https://static.igem.org/peertube/streaming-playlists/hls/3a71bf0f-556e-43b0-a935-a07db180b969/1433299f-98ba-42e7-bd3b-b621e7723ebc-master.m3u8https://video.igem.org/videos/embed/8dzQjYRhPp2TUW1es7GrvT258022022-10-12T08:36:47.493ZEducationworkshopactivitycareersstudentsYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aLdg7wwuxFJTrpCj5nn4zKhttps://video.igem.org/lazy-static/thumbnails/cea43886-02b5-4f3c-8be4-6c98977c14f7.jpgLiver TroublesLiver Troubleshttps://static.igem.org/peertube/streaming-playlists/hls/4f0e8797-b9f2-4101-92a5-149dd5d4d4a9/aea46a2c-1b09-4de9-bf05-74f854072b95-master.m3u8https://video.igem.org/videos/embed/aLdg7wwuxFJTrpCj5nn4zK2460242022-10-12T08:49:55.163ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/xo42Sm7V2juh8pLp1h8ukzhttps://video.igem.org/lazy-static/thumbnails/b0996539-dff6-44f2-bd0e-d1fdc36b4ae1.jpgTongji_Software: software game (2022)The game of Tongji_Software team.https://static.igem.org/peertube/streaming-playlists/hls/fe1f87b2-47a4-475f-98da-3eff4aa54737/ba34071d-7945-4a3d-b169-b212ec3886f1-master.m3u8https://video.igem.org/videos/embed/xo42Sm7V2juh8pLp1h8ukz1720312022-10-12T08:59:26.685ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/orfE1SxEiy4vx5sQutYUEjhttps://video.igem.org/lazy-static/thumbnails/b2c0cd2a-847b-4253-b9ff-a06eaa8d7346.jpgCHINA-FAFU: video-human practice-18 (2022) [English]This year, our team is also focused on developing new opportunities for individuals in the field of synthetic biology. Our ultimate goal is to promote mutual learning and open discussion among audiences and to expand integrated human practices among groups, thus making such events more educational. https://2022.igem.wiki/china-fafu/human-practices https://static.igem.org/peertube/streaming-playlists/hls/b5afad2f-1fc9-48f2-b999-defa0d30fdee/54c2cb1d-e183-4231-a64b-16c7482f14c0-master.m3u8https://video.igem.org/videos/embed/orfE1SxEiy4vx5sQutYUEj73052022-10-12T09:25:01.024ZCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dzY6TjeRCFCh24rVWYtcR5https://video.igem.org/lazy-static/thumbnails/22b15878-d0f6-4c44-8a6f-95dcf5354a24.jpgMunich: CAR T-cell tumor response (2022)3D animation of CAR T-cells, clustering around a solid tumor. The animation was created by Till from the iGEM Team Munich 2022.https://static.igem.org/peertube/streaming-playlists/hls/65ebc836-a103-4de7-87a4-829f2e67a7e2/cfdf6a08-2b2e-4f51-9ff4-801bcdeb8d6a-master.m3u8https://video.igem.org/videos/embed/dzY6TjeRCFCh24rVWYtcR54052022-10-12T09:24:45.329ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dAyMWAKs3yULKV8LqLZzu7https://video.igem.org/lazy-static/thumbnails/de705b55-002b-42ba-9f98-7375a5b1ceb9.jpgSogang_Korea: From incubator to plate position (2022) [English]https://2022.igem.wiki/sogang-korea/proof-of-concepthttps://static.igem.org/peertube/streaming-playlists/hls/66012933-af39-4dee-bffc-d0a939dad02a/1711af08-aea8-4cb0-8993-6915dfff34ba-master.m3u8https://video.igem.org/videos/embed/dAyMWAKs3yULKV8LqLZzu7200142022-10-12T09:56:05.085ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/a5HkEjbgoV42ryZeeakib2https://video.igem.org/lazy-static/thumbnails/dfa30959-2914-4c3c-aac3-90bd8e93f4ff.jpgDUT_China: home-1 (2022) [English]Wiki links: https://2022.igem.wiki/dut-china/https://static.igem.org/peertube/streaming-playlists/hls/498ab2f6-2a98-46dd-9524-3d70115f1f11/b8f724a4-580a-4de9-aab8-44d7c125823d-master.m3u8https://video.igem.org/videos/embed/a5HkEjbgoV42ryZeeakib290172022-10-12T10:28:06.123ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6x74iLNMazbatpBFvpDJAZhttps://video.igem.org/lazy-static/thumbnails/aaa66a13-dd58-47eb-86be-0de6ba5ad015.jpgCHINA-FAFU: video-human practice-19 (2022) [English]This year, our team is also focused on developing new opportunities for individuals in the field of synthetic biology. Our ultimate goal is to promote mutual learning and open discussion among audiences and to expand integrated human practices among groups, thus making such events more educational. https://2022.igem.wiki/china-fafu/human-practiceshttps://static.igem.org/peertube/streaming-playlists/hls/2cd57ba1-8478-40b2-b5f6-44ff6b77b36d/a90367ac-8740-499f-ad99-7d7c03603a0c-master.m3u8https://video.igem.org/videos/embed/6x74iLNMazbatpBFvpDJAZ730922022-10-12T10:53:58.703ZCHINA-FAFUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/p64RQ4wBcxN923bXzoz5MQhttps://video.igem.org/lazy-static/thumbnails/373605a4-8cb0-4bea-b899-fc9e588a1806.jpgStockholm: ProMutor Mutant Generation Tutorial (2022)Tutorial video for the ProMutor Mutant Generation https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/baf7494a-87da-4603-bbb2-a70972c1c3da/3876b92e-fd86-4529-8c51-357b562afcd5-master.m3u8https://video.igem.org/videos/embed/p64RQ4wBcxN923bXzoz5MQ202002022-10-12T11:59:48.789ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/doGDj6fHdyJ5VeUBUQVxSkhttps://video.igem.org/lazy-static/thumbnails/ce03fff5-ba3e-4964-9288-740478d802d6.jpgNYCU_Formosa: 3D Printing 1 (2022) [English]https://2022.igem.wiki/nycu-formosa/https://static.igem.org/peertube/streaming-playlists/hls/645912fe-09e3-41ce-9304-cbf0b54cf04b/c1f73bd3-d0f0-4193-adc1-0ed98d1eb623-master.m3u8https://video.igem.org/videos/embed/doGDj6fHdyJ5VeUBUQVxSk14032022-10-12T12:03:51.958ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/87zbNYgNYcv5czqyvbRwqRhttps://video.igem.org/lazy-static/thumbnails/cd92b9cc-25ed-40d7-9b5a-7041a30764a4.jpgNYCU_Formosa: 3D Printing 2 (2022) [English]https://2022.igem.wiki/nycu-formosa/https://static.igem.org/peertube/streaming-playlists/hls/399ae294-0427-4a17-bd9f-fbf7a96bd241/1c1744cb-7556-411b-a36f-8fe5e577f11a-master.m3u8https://video.igem.org/videos/embed/87zbNYgNYcv5czqyvbRwqR320142022-10-12T12:04:49.392ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cnB4ka8QswgpGsZe9vgEmZhttps://video.igem.org/lazy-static/thumbnails/09bebe5d-ebc8-4166-8f24-1ee1cb841feb.jpgStockholm: ProMutor Screening Mode Tutorial (2022)Tutorial for ProMutor Screening Mode https://2022.igem.wiki/stockholm/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/5c18bfd4-3851-4d7f-aac4-997cef7eee01/666a486d-a13b-43a2-b0db-aa91d39d163f-master.m3u8https://video.igem.org/videos/embed/cnB4ka8QswgpGsZe9vgEmZ223042022-10-12T12:11:20.818ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/92krZe5Xn2kPWE4D8SK37Thttps://video.igem.org/lazy-static/thumbnails/bbc47806-17b4-4623-a7be-9eb80058e282.jpgWorldshaper-Shanghai: A Phototroph Video Protocol (2022) [English]A Phototroph Video Protocol showhttps://static.igem.org/peertube/streaming-playlists/hls/40f8d69d-0ce5-4636-a7c4-b62082ec91cf/2531fe65-c464-4afc-93df-92ef8586f591-master.m3u8https://video.igem.org/videos/embed/92krZe5Xn2kPWE4D8SK37T153042022-10-12T12:25:15.880ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cdcgvq2NhFZx1Be77HwVo4https://video.igem.org/lazy-static/thumbnails/7653a2cf-0e5c-412f-a5d3-dd327cfa3904.jpgBIT: demonstration video (2022) [English]BIT: demonstration video-final (2022) [English] https://2022.igem.wiki/bit/hardware.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/5ac864ee-391d-45c5-a8c2-d153d602cc73/b8cf6198-267d-4942-ac38-c3c738c2f89b-master.m3u8https://video.igem.org/videos/embed/cdcgvq2NhFZx1Be77HwVo4480282022-10-12T12:31:15.900ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/f1sjyCfXrasH4ZXiLpguh9https://video.igem.org/lazy-static/thumbnails/a2f9f2c6-3ddf-46a3-b1a7-6afd348685fe.jpgBIT: Heating Table video (2022) [English]BIT: Heating Table video-final (2022) [English] temperature-control-module https://2022.igem.wiki/bit/temperature-control-modulehttps://static.igem.org/peertube/streaming-playlists/hls/7170295a-ddaf-47c2-a64e-d593991d96a0/1c380900-4122-4700-978d-5c84c9560389-master.m3u8https://video.igem.org/videos/embed/f1sjyCfXrasH4ZXiLpguh980102022-10-12T12:32:38.624ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vXe3WgqZDF9RXMK1Ksz4mDhttps://video.igem.org/lazy-static/thumbnails/a7ac426e-5072-47a7-a86b-2c318adfb85d.jpgBIT: paper chip video (2022) [English]BIT: paper chip video-final (2022) [English] paper-based-chip https://2022.igem.wiki/bit/paper-based-chiphttps://static.igem.org/peertube/streaming-playlists/hls/f28ef8a1-a3a7-4899-98fa-dd3bacf59b41/01015e30-5436-417a-a040-96a22d6e1ad1-master.m3u8https://video.igem.org/videos/embed/vXe3WgqZDF9RXMK1Ksz4mD80202022-10-12T12:34:04.152ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3aoq7FRL7td6pFPy7vZupphttps://video.igem.org/lazy-static/thumbnails/76156b1a-8e8b-4f39-8e1b-c5e57cccbfbf.jpgUFMG_UFV_Brazil: TV UFMG ProChi (2022) [Portuguese]Wiki link: https://2022.igem.wiki/ufmg-ufv-brazil/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/1181c914-49ec-46f6-b850-469ade649b35/4255ecec-b901-4b77-b276-45c5cda88344-master.m3u8https://video.igem.org/videos/embed/3aoq7FRL7td6pFPy7vZupp224022022-10-12T13:16:14.937ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/epEf4xQ8ScvMjL9MBQN3dwhttps://video.igem.org/lazy-static/thumbnails/22a0ab9c-a492-4342-899f-8308921e1d85.jpgUFMG_UFV_Brazil: TV BAND ProChi (2022) [Portuguese]Wiki link:https://2022.igem.wiki/ufmg-ufv-brazil/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6c947a1e-76a2-464d-8676-cf52a807316e/41484f17-2433-4c8b-9427-d5267440ba89-master.m3u8https://video.igem.org/videos/embed/epEf4xQ8ScvMjL9MBQN3dw138012022-10-12T13:00:58.559ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/qfCBcj2ZcLhWfZrBViQCT4https://video.igem.org/lazy-static/thumbnails/7d8f582a-01c1-4678-be33-d427ac1e5e04.jpgBIT: implementation-video (2022) [English]BIT: implementation-video-final (2022) [English] implementation https://2022.igem.wiki/bit/implementationhttps://static.igem.org/peertube/streaming-playlists/hls/c4664ce4-f0a6-43f0-a925-c74a5e794291/546682d1-1929-4a57-8a71-e4a60621bdac-master.m3u8https://video.igem.org/videos/embed/qfCBcj2ZcLhWfZrBViQCT41570172022-10-12T13:10:07.802ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/kHGQivWsjT9aTbdTAr1HQqhttps://video.igem.org/lazy-static/thumbnails/896beeb2-15d5-4962-b57f-dedcc2938814.jpgAix-Marseille: Trivia quiz game (2022) [English]Quiz Game realized with a collaboration with an other iGEM teamhttps://static.igem.org/peertube/streaming-playlists/hls/9fb04b0f-fc48-422f-904b-035b98fc544c/d802f791-08f8-499e-9b35-a1d0ae3077fd-master.m3u8https://video.igem.org/videos/embed/kHGQivWsjT9aTbdTAr1HQq126032022-10-12T13:09:23.200ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jWTP41HJf9Y1yQ4UWXMAzDhttps://video.igem.org/lazy-static/thumbnails/f6212b40-4c39-4b5d-9805-937403dd9eec.jpgSogang_Korea: SynBioBot_control_with_gui (2022) [English]https://2022.igem.wiki/sogang-korea/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/996e96da-78f0-46ab-813c-4a152f30721f/5c2a26a9-e5b9-4b94-b868-e8acc258b3a6-master.m3u8https://video.igem.org/videos/embed/jWTP41HJf9Y1yQ4UWXMAzD112032022-10-12T13:37:05.336ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/66Z3fCAJc8oUWLT2CcEv51https://video.igem.org/lazy-static/thumbnails/0b170e65-f7ec-4b8a-a092-eda3c53098df.jpgConcordia-Montreal: Our project video (2022) [English]Our project videohttps://static.igem.org/peertube/streaming-playlists/hls/29539046-b91d-4eea-ab52-436363b0afdc/61c01720-ecca-4a61-beac-0ed491ed7dc2-master.m3u8https://video.igem.org/videos/embed/66Z3fCAJc8oUWLT2CcEv511190422022-10-12T13:39:39.161ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/t1ohkQTsZ4YYZWjocuWaishttps://video.igem.org/lazy-static/thumbnails/2a584e95-7baa-442d-bc29-6cbffbf1dbd7.jpgIISc-Bengaluru: Sync-Sign-Language-Ch1 (2022)Chapter 1 of Sync : the educational package prepared by Team iGEM IISc-Bengaluru in Sign Language Credits: Kripa D. Head Inclusive Education, Oceanic Inclusive College of Higher Education, Arjun Shankar, Deaf interpreter, Indian Sign Language, Nandini Founder and Director of Helping Hands NGO.https://static.igem.org/peertube/streaming-playlists/hls/dab479b6-9b6d-422e-92f6-4e21930e50c8/18750ef9-846a-4ebd-81a5-1c59f75057ae-master.m3u8https://video.igem.org/videos/embed/t1ohkQTsZ4YYZWjocuWais364072022-10-12T14:26:10.064ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/3dfjD77PDZ2VU39ABQiFzuhttps://video.igem.org/lazy-static/thumbnails/a276e200-e70a-46e4-b2db-1f8b06afae3c.jpgIISc-Bengaluru: Sync-Sign-Language-Chp2 (2022)Chapter 2 of Sync : the educational package prepared by Team iGEM IISc-Bengaluru in Sign Language Credits: Kripa D. Head Inclusive Education, Oceanic Inclusive College of Higher Education, Arjun Shankar, Deaf interpreter, Indian Sign Language, Nandini Founder and Director of Helping Hands NGO.https://static.igem.org/peertube/streaming-playlists/hls/11e80746-97a6-4fd9-8b8d-0e889d0d6b1a/36997b8a-16e8-47c9-973f-885371a258ad-master.m3u8https://video.igem.org/videos/embed/3dfjD77PDZ2VU39ABQiFzu337062022-10-12T14:29:26.629ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/uAMBRxq1AMKcZkbrh1D4ymhttps://video.igem.org/lazy-static/thumbnails/79b59f0a-f2fb-4b18-a2d9-c001e7b704aa.jpgIISc-Bengaluru: Sync-Sign-Language-Chp3 (2022)Chapter 3 of Sync : the educational package prepared by Team iGEM IISc-Bengaluru in Sign Language Credits: Kripa D. Head Inclusive Education, Oceanic Inclusive College of Higher Education, Arjun Shankar, Deaf interpreter, Indian Sign Language, Nandini Founder and Director of Helping Hands NGO.https://static.igem.org/peertube/streaming-playlists/hls/e79b48aa-fd2d-4109-bae5-06acf22d06c8/c26e5e81-c91f-4353-b47d-9a999c8dd233-master.m3u8https://video.igem.org/videos/embed/uAMBRxq1AMKcZkbrh1D4ym350002022-10-12T14:32:04.063ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jTNoenuyviTck3QnR7mx6Whttps://video.igem.org/lazy-static/thumbnails/1b35a37e-f507-464f-b5e5-abb758a153c7.jpgIISc-Bengaluru: Sync-Sign-Language-Chp4 (2022)Chapter 3 of Sync : the educational package prepared by Team iGEM IISc-Bengaluru in Sign Language Credits: Kripa D. Head Inclusive Education, Oceanic Inclusive College of Higher Education, Arjun Shankar, Deaf interpreter, Indian Sign Language, Nandini Founder and Director of Helping Hands NGO.https://static.igem.org/peertube/streaming-playlists/hls/9900034b-1b2a-4ff1-af82-bcea27431514/9f317018-e178-4c82-90fc-c40492bfeccb-master.m3u8https://video.igem.org/videos/embed/jTNoenuyviTck3QnR7mx6W166002022-10-12T14:35:18.962ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/soX1vkuqYD4sJMZ1vTUgGyhttps://video.igem.org/lazy-static/thumbnails/2548c49a-0dd8-4eb3-89ab-c87eaff23558.jpgGreatBay_SCIE: Documentary Episode 4 (2022) [English]FabRevivo in the Real World: After designing our hardware, we determined the wide range of users of our solution and proposed a thorough implementation for our project, including research and development, small-scale trial production and outreach, and mass production and brand establishment.https://static.igem.org/peertube/streaming-playlists/hls/d5c1de51-50c1-4054-9f9a-73bec1a4e33c/48db7d39-4700-40a5-933b-c0367e336325-master.m3u8https://video.igem.org/videos/embed/soX1vkuqYD4sJMZ1vTUgGy3510152022-10-12T15:27:04.337ZSustainabilityImplementationTextile RecycingDocumentaryYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hVfnU4RAwV1nd5RqT1w3uQhttps://video.igem.org/lazy-static/thumbnails/ac900017-ce4d-4ab7-b4fc-1e7ba6625428.jpgCalgary: Education - Synthetic Biology Introduction (2022) [English]Part 1/3 of education videos designed by iGEM Calgary as part of an synbio education toolkit for schools. The video features an overview of synthetic biology, designed for elementary/middle-school age children. https://2022.igem.wiki/calgary/ https://static.igem.org/peertube/streaming-playlists/hls/89017fb4-7b2f-4bed-b589-b43cd7e318e0/8bd9b485-2b8a-4af4-9545-64aafd49fee7-master.m3u8https://video.igem.org/videos/embed/hVfnU4RAwV1nd5RqT1w3uQ5250122022-10-12T15:40:53.696ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/eTbpWU4f9Loa9K7E77QJ3whttps://video.igem.org/lazy-static/thumbnails/1c442fdd-0981-43a2-8dce-19b6484bc9fc.jpgCalgary: Education - Strawberry DNA Extraction (Students) (2022) [English]Part 2/3 of education videos designed by iGEM Calgary as part of an synbio education toolkit for schools. The video walks students through a strawberry DNA extraction experiment. https://2022.igem.wiki/calgary/https://static.igem.org/peertube/streaming-playlists/hls/706c26ea-1870-4e12-bde1-3be131e3db9a/6ed3ddad-95f0-4010-a0a9-ea9c0b6d15b9-master.m3u8https://video.igem.org/videos/embed/eTbpWU4f9Loa9K7E77QJ3w213052022-10-12T16:00:06.988ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/544nZkz3q2aWhBeT4FJTAUhttps://video.igem.org/lazy-static/thumbnails/886ebd2d-702f-42aa-9e4f-fe20893146ec.jpgCalgary: Education - Strawberry DNA Extraction (Educators) (2022) [English]Part 3/3 of education videos designed by iGEM Calgary as part of an synbio education toolkit for schools. The video is designed to guide educators and help them effectively perform the strawberry DNA extraction. https://2022.igem.wiki/calgary/ | Calgary - iGEM 2022 https://static.igem.org/peertube/streaming-playlists/hls/20d1de4f-a172-4506-9012-9a405de4a934/43feec38-94de-4bce-af0e-010cfbe0f2af-master.m3u8https://video.igem.org/videos/embed/544nZkz3q2aWhBeT4FJTAU4740112022-10-12T16:04:46.250ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/vcFZdnqyeseLvMCuFdDoY6https://video.igem.org/lazy-static/thumbnails/01a7d8be-3a12-4a21-bf64-a4cc024a6302.jpgVirginia: App Demo (2022) [English]Virgnia IGEM created an App demo to promote awareness of atherosclerosis. https://static.igem.org/peertube/streaming-playlists/hls/ec7ad85a-30a5-4553-b1c5-88efb1f7ddb5/e011a963-5d3e-4fc2-9f71-bacda647c88a-master.m3u8https://video.igem.org/videos/embed/vcFZdnqyeseLvMCuFdDoY6125012022-10-12T18:35:41.127ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/n1eMRY6M9seJKcEnRuoQZ9https://video.igem.org/lazy-static/thumbnails/4ca1455a-13f9-40b2-8815-3fb463466d9f.jpgUniofBath: FertonField (2022) [English]An aerial view of a tractor spreading solid fertilizer.https://static.igem.org/peertube/streaming-playlists/hls/aa186922-fe95-44bc-bfe4-0f97943e5fc2/69c96c66-60e1-47c0-b32a-5bd674e816f7-master.m3u8https://video.igem.org/videos/embed/n1eMRY6M9seJKcEnRuoQZ927022022-10-12T21:18:24.978ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nAVrUJQeqErRE78i26sx2Whttps://video.igem.org/lazy-static/thumbnails/4476c72c-e225-4e0a-83cb-96562bcd423a.jpgUniofBath: wheatupclose (2022)A zoom up of growing wheat.https://static.igem.org/peertube/streaming-playlists/hls/aef02343-55e6-49ff-bdad-6f45c7b0988c/8b641280-93b2-4c45-8d3a-4cf506abed67-master.m3u8https://video.igem.org/videos/embed/nAVrUJQeqErRE78i26sx2W12062022-10-12T21:20:24.558ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/2YWeXumVwQ4DVkUw1TwcCrhttps://video.igem.org/lazy-static/thumbnails/ecd76bd0-dda2-4628-9cbe-0cdfff1b5816.jpgUniofBath: Phosphatpriceanimation (2022) [English]An animated graph of the price of different phosphate commodities over time.https://static.igem.org/peertube/streaming-playlists/hls/100c377d-6e38-4d66-8644-639d1319e22d/35a2ab0c-3a11-4974-ace5-60a0ae578cad-master.m3u8https://video.igem.org/videos/embed/2YWeXumVwQ4DVkUw1TwcCr120192022-10-12T21:26:49.206ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/d3mMBVdyqUwVqj1eKbLDyshttps://video.igem.org/lazy-static/thumbnails/666ac619-149b-4f1b-83e8-13a0106d0d4f.jpgLambert_GA: CCA & Lambert Collaboration Safety Video (2022) [English]Lambert iGEM 2022 Collaboration https://2022.igem.wiki/lambert-ga/ This video is the product of the collaboration between Lambert iGEM and Canyon Crest Academy iGEM. Together, our high school iGEM teams created a guide to proper laboratory safety and usage. We hope this resource can prove useful to beginning biotechnology labs or newer iGEM teams.https://static.igem.org/peertube/streaming-playlists/hls/6181f62c-b623-4c33-8e49-4c12cc6b482e/98c8a134-1b90-4b82-9001-2e1d5b4b7932-master.m3u8https://video.igem.org/videos/embed/d3mMBVdyqUwVqj1eKbLDys208032022-10-12T22:56:27.912Z#labsafety#synbio#biotechnology#laboratory#safetyYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5CRH6UGoVZvtfnCprSFVjMhttps://video.igem.org/lazy-static/thumbnails/59cd9f4c-9652-4acf-b7c6-d266208d1fa2.jpgVirginia: AtheroSHuffle App Demo (2022) [English]An demo of the design of our helper app. This video goes through the different functions our app will have and how it will help the user keep track of their heart health. Video and app demo created by Jayati Maram, team member of Virginia iGEM 2022.https://static.igem.org/peertube/streaming-playlists/hls/2589f6e3-4c2b-4810-af47-86120726314d/7f56e60c-e0db-4997-8838-bbafd1907dd0-master.m3u8https://video.igem.org/videos/embed/5CRH6UGoVZvtfnCprSFVjM1250202022-10-13T01:38:51.188ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dBFvTDimnBFqmaUazt1Ft5https://video.igem.org/lazy-static/thumbnails/8edcc70d-d0e4-4b97-9262-2a187c059a40.jpgBNUZH-China In-vivo Biodegradable Skin Regeneration Scaffold System Based On Bacterial Cellulose ...The 2022 BNUZH-China team successfully built an in-vivo biodegradable skin regeneration scaffold system(BCAID) based on bacterial cellulose to achieve a series of functions, including healing promotion, antibacterial ability, self-degradation and self-apoptosis, which assists the accelerated repair of whole-layer defected skin and adapts to new therapeutic pathways and application scenarios.https://static.igem.org/peertube/streaming-playlists/hls/66290c4e-5abb-4396-9e39-c4079553a42e/740c03fe-6cec-44f7-ba34-e4209431e607-master.m3u8https://video.igem.org/videos/embed/dBFvTDimnBFqmaUazt1Ft511901282022-10-13T06:29:31.514ZPVYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hi4B92NTN2b7uD6uvfkXrwhttps://video.igem.org/lazy-static/thumbnails/913686f5-9354-4e29-8fe0-4165d9c88574.jpgIISER_Bhopal: Animation home (2022) [English]Animation for homepage.https://static.igem.org/peertube/streaming-playlists/hls/83f415b7-177f-4c99-9acf-02be01520bfc/4f66e194-bded-4fa0-977b-481240f69910-master.m3u8https://video.igem.org/videos/embed/hi4B92NTN2b7uD6uvfkXrw560502022-10-13T07:26:52.329ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7dUZVYAy5urEUhL7tiYJvqhttps://video.igem.org/lazy-static/thumbnails/7dc6b9e1-6f7a-4af9-af25-4053b1a1998c.jpgUniofBath: ProductionGraphAnimation (2022) [English]A graph of different scenarios of phosphate production and depletion over time.https://static.igem.org/peertube/streaming-playlists/hls/32646b3b-46a8-45ba-a579-50cc870898c2/e7d36906-e833-48f0-8861-d0f35a1d3e20-master.m3u8https://video.igem.org/videos/embed/7dUZVYAy5urEUhL7tiYJvq60492022-10-13T09:35:31.535ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jGonddU5Nw8PRHzCmctzLehttps://video.igem.org/lazy-static/thumbnails/4a4a0b6c-7f27-4356-a06b-928580e9188a.jpgParis_Bettencourt: From Twitter to gene regulation (2022)Shot video showing out software pipilene that control our custom made High Throughput Electro Actuator (HTA) from a twitter feedhttps://static.igem.org/peertube/streaming-playlists/hls/976807b0-473f-40e7-b32c-160b76171091/438a172a-c4e9-4552-bd22-99a95a9c2beb-master.m3u8https://video.igem.org/videos/embed/jGonddU5Nw8PRHzCmctzLe1602682022-10-13T09:14:45.789ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7FtiSVuseNyGNRqpc75VFZhttps://video.igem.org/lazy-static/thumbnails/71bc92e4-aa73-4534-8691-d7ec357ac41c.jpgAFCM-Egypt: Aptamer-based approaches (2022) [English]AFCM-Egypt: Aptamer-based approaches (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/3619ab15-23b9-47b1-bcf5-066facec4f23/01332a20-cdab-482a-aa4b-a7c664d93c05-master.m3u8https://video.igem.org/videos/embed/7FtiSVuseNyGNRqpc75VFZ182052022-10-14T03:54:23.096ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/w2MshqrbP93DRMs2uLDDcWhttps://video.igem.org/lazy-static/thumbnails/05e148e3-1868-4a02-8a09-18abe42e4c0d.jpgIISER-Tirupati_India: Hardware Model 1 (2022)IISER-Tirupati_India: Hardware Model 1 (2022)https://static.igem.org/peertube/streaming-playlists/hls/f331ea42-3bee-416f-ba81-bc00bd7baf30/97af8fa1-3c63-4029-9fb7-1e02b0f5872b-master.m3u8https://video.igem.org/videos/embed/w2MshqrbP93DRMs2uLDDcW100122022-10-13T09:51:56.756ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/aQsY9G1gV4XwDXdBheJYFNhttps://video.igem.org/lazy-static/thumbnails/002c8b74-a79b-4832-a560-62ef38ea8d80.jpgIISER-Tirupati_India: Hardware Movement in Chip (2022) [English]IISER-Tirupati_India: Hardware Movement in Chip (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/4fa6918e-9b98-466c-9d98-d81fd51d6904/e8c1daaf-66ee-41a8-9255-b0a189e13a2b-master.m3u8https://video.igem.org/videos/embed/aQsY9G1gV4XwDXdBheJYFN290312022-10-13T09:55:35.154ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/nHQSgWxaSDZkY9zdXHUy93https://video.igem.org/lazy-static/thumbnails/a7cb48d5-288a-481b-a96b-1ce234fbe4ad.jpgEstonia_TUIT: Scientific Art Exhibition and Escape room (2022) [English]Video about Scientific Art Exhibition and Escape Room event organised by Estonia_TUIT iGEM team (27.09.2022, Tartu) Estonia_TUIT wiki page: https://2022.igem.wiki/estonia-tuit/index Background music from the free source AShamaluevMusic.https://static.igem.org/peertube/streaming-playlists/hls/afe7858c-283b-4e71-a64a-439c309594e2/cde2b4e5-7aa4-4bae-9385-a1d0fc7ba687-master.m3u8https://video.igem.org/videos/embed/nHQSgWxaSDZkY9zdXHUy932190382022-10-13T10:48:28.568ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ekybqJ8wtopGboDw4q42JKhttps://video.igem.org/lazy-static/thumbnails/50b6d4b8-ecc6-4ebe-b405-456fce2a923e.jpgEstonia_TUIT: Scientific Art Exhibition and Escape room (2022) [English]1-minute video from Estonia_TUIT team about our Space Yeast project for the collaboration launched by iGEM Meta Thess team from Greece. Estonia_TUIT wiki page: https://2022.igem.wiki/estonia-tuit/indexhttps://static.igem.org/peertube/streaming-playlists/hls/6c01c404-8746-4e08-8c14-977419e311ab/7d6d860b-8c16-4287-92ea-11ca81bcafb6-master.m3u8https://video.igem.org/videos/embed/ekybqJ8wtopGboDw4q42JK580112022-10-13T10:54:09.071ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6SaQZLeghZfti5uzKZaLN6https://video.igem.org/lazy-static/thumbnails/70e4b695-812b-4b9a-8375-5fea5dee719a.jpgEstonia_TUIT: Lab safety collaboration video (2022) [English]Video about lab safety rules from Estonia_TUIT iGEM team for the collaboration launched by Indian iGEM team IISER_Mohali. Estonia_TUIT iGEM team wiki page: https://2022.igem.wiki/estonia-tuit/indexhttps://static.igem.org/peertube/streaming-playlists/hls/2f7ef2e7-a330-4fb3-9195-58ffd75920b9/8f752eef-442e-421c-a918-83dec73f85ee-master.m3u8https://video.igem.org/videos/embed/6SaQZLeghZfti5uzKZaLN61090232022-10-13T11:05:09.473ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/epVxr887iwYAfqUyYkbLzmhttps://video.igem.org/lazy-static/thumbnails/27cf2f73-3c79-413e-9110-8c31acea4f1c.jpgEstonia_TUIT: Hardware demonstration (2022)Demonstration of Estonia_TUIT iGEM 2022 team's hardware. Estonia_TUIT iGEM team wiki page: https://2022.igem.wiki/estonia-tuit/indexhttps://static.igem.org/peertube/streaming-playlists/hls/6c9de7db-43fc-4214-822f-95209c19d87e/fb58a8ea-9ead-4391-939a-fe0f1b380ea1-master.m3u8https://video.igem.org/videos/embed/epVxr887iwYAfqUyYkbLzm800382022-10-13T11:12:07.575ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/68LaqjEQAuDAJnitEJcs2dhttps://video.igem.org/lazy-static/thumbnails/b15caff5-e21a-4ff7-b879-e1db2d9271f7.jpgTU_Braunschweig: Fluorolion pump system (2022)The video demonstrates the pump system of our box, FluoroLion. Link to video on our wiki https://2022.igem.wiki/tu-braunschweig/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/29931da0-f87e-49a2-b78a-8738db5f9446/edcf0cce-c74f-48b1-83db-7cdac42b8fa7-master.m3u8https://video.igem.org/videos/embed/68LaqjEQAuDAJnitEJcs2d220142022-10-13T14:27:19.512ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4VotGFFtMDDBeg4mepmV7Uhttps://video.igem.org/lazy-static/thumbnails/64cb4755-92fa-45dd-a30d-dfe088893fed.jpgIISER-Tirupati_India: Photodetection (2022)IISER-Tirupati_India: Photodetection (2022)https://static.igem.org/peertube/streaming-playlists/hls/1fbfb027-fb07-408f-b095-61a8157a0c34/1a95d0cc-161f-4d1c-9f79-3044e6663f00-master.m3u8https://video.igem.org/videos/embed/4VotGFFtMDDBeg4mepmV7U160202022-10-13T13:52:08.453ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4v1VrBW2fivRvi4cm23otXhttps://video.igem.org/lazy-static/thumbnails/6aedc10b-747d-41c5-a35c-b52195035ba2.jpgNUDT_CHINA: WIKI Homepage Video (2022) [English]This is the homepage video of our wiki.https://static.igem.org/peertube/streaming-playlists/hls/1c588d9b-21a0-4edd-9169-3194d6131c8d/5e389787-1d4f-4796-b563-04e4620b35b0-master.m3u8https://video.igem.org/videos/embed/4v1VrBW2fivRvi4cm23otX1506652022-10-13T14:25:15.944ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/12F2Z3QD56fPX4SHP1pH2whttps://video.igem.org/lazy-static/thumbnails/18d493d4-4428-44a9-a654-aad97813c0ef.jpgPatras_Medicine: PHI29 (2022) [English]Phi29 DNA MD https://static.igem.org/peertube/streaming-playlists/hls/003bcca8-c98d-4444-ba44-aa5860814f54/add53a18-58f6-476b-862c-645368634b89-master.m3u8https://video.igem.org/videos/embed/12F2Z3QD56fPX4SHP1pH2w30722022-10-13T14:51:55.523ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5e6whkdBqgZBpXi4s6UaXxhttps://video.igem.org/lazy-static/thumbnails/c57a3f71-f4e2-4e56-9ed3-15d4d362afa2.jpgPatras_Medicine: Circle (2022) [English]Circle https://static.igem.org/peertube/streaming-playlists/hls/2238a073-8389-4085-a6a4-6f65c6837cc9/e4e2f34e-4639-437e-973b-c1612e4f1285-master.m3u8https://video.igem.org/videos/embed/5e6whkdBqgZBpXi4s6UaXx30832022-10-13T14:59:45.618ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/e93rLAAPGGroS4EHc333Q3https://video.igem.org/lazy-static/thumbnails/df9ea290-3341-4078-8fe3-fcb04316a211.jpgPatras_Uni_Hellas: Preservation of Heritage (2022) [English]Historical monuments are an integral part of the cultural heritage of every civilization, whose protection is of paramount importance. Biotic and abiotic factors alter the quality and aesthetics of marble structures and statues with biocorrosion being the most widespread and resistant type of corrosion. The exposure of marbles to the environment and, as a result, to multiple environmental factors enhances their infestation by the above-mentioned micro-organisms. You can find this video in our page on the following link: https://2022.igem.wiki/patras-uni-hellas/index.html . https://static.igem.org/peertube/streaming-playlists/hls/6a664253-9779-463e-8dfe-7381cb4f27ba/1f94c135-c025-4ebe-8549-a82aef03751d-master.m3u8https://video.igem.org/videos/embed/e93rLAAPGGroS4EHc333Q31002672022-10-13T15:25:40.203ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pgCDq13XLtT6NcxUqS9M7Lhttps://video.igem.org/lazy-static/thumbnails/e38b5729-0c2c-48cb-84e0-c50034f60399.jpgImperial_College_London: Spore Germination (2022) [English]A video for our PoC page entailing Bacillus subtilis spores. Acknowledging Lea Berninerhttps://static.igem.org/peertube/streaming-playlists/hls/bc70edd6-7954-49fa-bf38-8ec2ce6a53bc/2c0a07f1-3b4f-4959-9c9c-78d21821d427-master.m3u8https://video.igem.org/videos/embed/pgCDq13XLtT6NcxUqS9M7L10002022-10-13T15:25:56.125ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8ghGbLWD3FDyV2cQnV9HTAhttps://video.igem.org/lazy-static/thumbnails/c950f612-0ccc-42d7-9030-1c5c2a23b733.jpgImperial_College_London: Spore Germination (2022) [English]Germination video. Lea Bernierhttps://static.igem.org/peertube/streaming-playlists/hls/3ad26a1d-47be-4e52-8a5b-0f43f699cca4/1421e35e-4b2e-47f2-9de5-fc90db9b8ff5-master.m3u8https://video.igem.org/videos/embed/8ghGbLWD3FDyV2cQnV9HTA10002022-10-13T15:29:24.023ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sxdiyQrbUprdTNMKgmJEdihttps://video.igem.org/lazy-static/thumbnails/f43eca4b-59f5-48a6-8356-504d881c2a93.jpgImperial_College_London: Spore Germination (2022) [English]Spore germination. Crediting Lea Berniner. https://2022.igem.wiki/imperial-college-london/proof-of-concepthttps://static.igem.org/peertube/streaming-playlists/hls/d6e93e72-cbcf-4da6-b3ff-627c063ad391/917c26d2-1cc2-45de-9dfa-e363612126bb-master.m3u8https://video.igem.org/videos/embed/sxdiyQrbUprdTNMKgmJEdi10002022-10-13T15:34:32.536ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/swYsstBCCj8krF8ftQnzg2https://video.igem.org/lazy-static/thumbnails/79c9e9a6-e331-4749-a970-c2417eaad08f.jpgParis_Bettencourt: Exposure of E. coli to AC current on the Micro-Electro-Slide (2022)This video shows a solid culture of E. coli looked at 60x using a fluorescent microscope. The cells are stained with Thioflavin T, a dye reporting membrane potentialhttps://static.igem.org/peertube/streaming-playlists/hls/d6e0b5e9-9f8e-4d63-be8c-cc70513ceb33/236115c7-161f-47bb-af8c-ab7e31780d11-master.m3u8https://video.igem.org/videos/embed/swYsstBCCj8krF8ftQnzg23092022-10-13T16:00:05.057ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bSE5HFade3s8FyrQ5ZoFrPhttps://video.igem.org/lazy-static/thumbnails/9f8fa352-3062-4955-b5ac-b720414874d2.jpgImperial_College_London: timelapse_XY5_ome_tif_kept_stack (2022)Germinationhttps://static.igem.org/peertube/streaming-playlists/hls/580e0b27-48ee-41c7-9250-ad9fbe36b955/e9f4ec2d-d627-4771-93dd-2fcd46e95450-master.m3u8https://video.igem.org/videos/embed/bSE5HFade3s8FyrQ5ZoFrP100322022-10-13T16:12:58.383ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/tHPup9U6nE8dC9i98X5kYQhttps://video.igem.org/lazy-static/thumbnails/7edc1e7a-532c-48fe-94e8-0b8b6f48b7ad.jpgImperial_College_London: C2cropped-20221006_timelapse_XY5_ome (2022)Germinationhttps://static.igem.org/peertube/streaming-playlists/hls/e07d8142-8121-41bf-9d84-83f3dc66d17c/7bce6314-6b76-4b69-b2f1-3caa9e3f0d45-master.m3u8https://video.igem.org/videos/embed/tHPup9U6nE8dC9i98X5kYQ100262022-10-13T16:17:52.421ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jgSL94WHgeTmzd8J8AvnP9https://video.igem.org/lazy-static/thumbnails/b5f250b4-e3f6-47f1-b17a-e25b878bc835.jpgCPU_CHINA: Dive into the deepest labs of China Pharmaceutical University (2022) [English]This vlog is an introduction to the apparatus and basic operation in Synthetic Biology labs as well as our daily work in the labs. We produce it for science populization facing elementary students. Want to know more details about us? Please visit: https://2022.igem.wiki/cpu-china/https://static.igem.org/peertube/streaming-playlists/hls/93fbef5d-6c31-434f-ba31-3e13552b56aa/b74f6687-12ee-4da7-9660-e1eff785f17a-master.m3u8https://video.igem.org/videos/embed/jgSL94WHgeTmzd8J8AvnP96320152022-10-13T16:49:46.916Zscience populizationvlogYESiGEM 2022 TeamsNOhttps://video.igem.org/w/17KyQ265cULvUv8w6uEB2Ehttps://video.igem.org/lazy-static/thumbnails/ecd5455e-6556-4edb-a471-1709625c971f.jpgIIT-Delhi: Simulation 2 (2022)Representative MD simulation of proteins after lead incorporation. : Simulated in Desmond https://2022.igem.wiki/iit-delhi https://static.igem.org/peertube/streaming-playlists/hls/00f14fa5-9787-4ffa-b477-6f988698261c/ce453e82-001d-4909-93f9-303b2738aa54-master.m3u8https://video.igem.org/videos/embed/17KyQ265cULvUv8w6uEB2E3460232022-10-13T16:50:36.544ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/c795sNRuFi24cHKrZSf2cahttps://video.igem.org/lazy-static/thumbnails/28b4918e-9a75-477a-8ad9-89d08d7b61bf.jpgIISER-Tirupati_India: SYN-VIBE Musical Parody (2022) [English]Team IISER Tirupati x Team IISER TVM presents Syn-Vibe, a musical parody on the journey of iGEM. https://static.igem.org/peertube/streaming-playlists/hls/59eff728-e356-4433-8aeb-96babd52e65b/eee51a08-efb1-445a-9edc-69989fde2f97-master.m3u8https://video.igem.org/videos/embed/c795sNRuFi24cHKrZSf2ca1030202022-10-13T18:28:36.476ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/bgT4eG527egFPWzMJ6jMDzhttps://video.igem.org/lazy-static/thumbnails/30339343-1ce6-43e4-b35a-e88755f35360.jpgIISER-Tirupati_India: hardware_vertical (2022)IISER-Tirupati_India: hardware_vertical (2022)https://static.igem.org/peertube/streaming-playlists/hls/533301e5-05c7-4b66-b339-5e6989064ff7/c423a608-a5e9-4097-b13f-d60b39693b6d-master.m3u8https://video.igem.org/videos/embed/bgT4eG527egFPWzMJ6jMDz6052022-10-13T18:23:13.561ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/drHRSoKWT63psdviTFjweThttps://video.igem.org/lazy-static/thumbnails/8a42e3ce-20d1-4550-b729-5907cdee4a33.jpgVirginia: MO of the Killer: Risk Factors of Atherosclerosis (2022) [English]Episode two of our podcast.https://static.igem.org/peertube/streaming-playlists/hls/64c50e21-1dbe-48c1-8a52-5b720098373d/b37d4608-9745-4c64-a646-552a7e36f75d-master.m3u8https://video.igem.org/videos/embed/drHRSoKWT63psdviTFjweT1077042022-10-13T19:07:08.878ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/wirPr3gKRNDSzDX198gRYUhttps://video.igem.org/lazy-static/thumbnails/45655e6b-e0bb-4ac6-92f9-9945e9c08869.jpgAshesiGhana: Hardware Prototype (2022) [English]This is a video of the prototype with real-world application simulations of our team's hardware design.https://static.igem.org/peertube/streaming-playlists/hls/f561b6f4-691e-46f3-b045-f344e930d210/c1e36d2b-dffe-4a96-9e40-779da0d65e87-master.m3u8https://video.igem.org/videos/embed/wirPr3gKRNDSzDX198gRYU310372022-10-13T19:43:19.320ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/6agAukhkJ7M1YTEgG19yA5https://video.igem.org/lazy-static/thumbnails/61f0844e-416a-4e41-95d1-7d85fa04bcec.jpgNYCU-Taipei: NYCU Taipei X NYCU-Taigi (2022) [Chinese]NYCU-Taipei x NYCU Tâi-Gí educational cooperation project - educational video in native languagehttps://static.igem.org/peertube/streaming-playlists/hls/29c8ff6d-4e46-416d-96b1-6d969f1e9638/706ae82f-a2bc-47f1-aca1-6329ce8fb228-master.m3u8https://video.igem.org/videos/embed/6agAukhkJ7M1YTEgG19yA5177082022-10-13T19:47:11.071ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/pQ2oaNz5smwP9Q5AaXpuwnhttps://video.igem.org/lazy-static/thumbnails/8d551239-e1d4-4edd-b429-0928c661d501.jpgAshesiGhana: Proof of Concept Demo (2022) [English]This is a demo video of our prototype and its real-world simulation.https://static.igem.org/peertube/streaming-playlists/hls/c0f6bdf1-7895-4113-9205-e8a5256a8bf9/ec2c670f-678a-4478-8282-cb7f41248756-master.m3u8https://video.igem.org/videos/embed/pQ2oaNz5smwP9Q5AaXpuwn180332022-10-13T19:46:10.503ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8CT9Q5LfSZSz6ARCqp3Tmzhttps://video.igem.org/lazy-static/thumbnails/8c04b5c2-7a06-4344-a4ab-62aaad137d85.jpgiGEMx Maarten Lubbers: SynBioNL – setting up a national synthetic biology association from scratchMaarten Lubbers is a Ph.D. student at Leiden University (the Netherlands), working on morphology engineering of actinomycetes using synthetic biology approaches. Besides playing an active role in the iGEM Competition, he will discuss the ins and outs of setting up a national association from scratch!https://static.igem.org/peertube/streaming-playlists/hls/3dd6451f-e85c-4cec-802d-3b3e75ca3615/828721d2-5973-493c-ac9c-76efb99fa667-master.m3u8https://video.igem.org/videos/embed/8CT9Q5LfSZSz6ARCqp3Tmz23080132022-10-13T20:13:14.806ZYESiGEM CommunityNOhttps://video.igem.org/w/gxYcodWeeRSBfp6Lr5x2d3https://video.igem.org/lazy-static/thumbnails/0f9cf245-1057-457c-b31f-6b3715976c5f.jpgIISER-Tirupati_India: Hardware FINAL Model 1 (2022)IISER-Tirupati_India: Hardware FINAL Model 1 (2022)https://static.igem.org/peertube/streaming-playlists/hls/7defc4d9-ab3b-424a-9f88-5d8609410216/3cfd19de-17ae-41af-b583-f7085bdcbfd0-master.m3u8https://video.igem.org/videos/embed/gxYcodWeeRSBfp6Lr5x2d360292022-10-13T20:19:56.493ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/7rXyAvnRnbfWKTMxEixmA5https://video.igem.org/lazy-static/thumbnails/8ee85316-9635-428f-89ff-c49818018eab.jpgIISER-Tirupati_India: Hardware FINAL Model 2 (2022)IISER-Tirupati_India: Hardware FINAL Model 2 (2022)https://static.igem.org/peertube/streaming-playlists/hls/3436aae1-226c-45b8-8ee7-32dc28734070/19b50814-08df-4963-b454-4da87e006ba0-master.m3u8https://video.igem.org/videos/embed/7rXyAvnRnbfWKTMxEixmA5100332022-10-13T20:23:17.280ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fi5zTfQUoLcvhXi59TzKsbhttps://video.igem.org/lazy-static/thumbnails/cdf826c8-f76b-42f2-8668-dc5bd84478e5.jpgTecCEM: Lab tour (2022) [English]A video that TecCEM created for the Collaboration parthttps://static.igem.org/peertube/streaming-playlists/hls/73c26912-e8b1-4745-86c2-e31ee34c8fd2/590654cd-b03a-4395-b281-0be9ecbab645-master.m3u8https://video.igem.org/videos/embed/fi5zTfQUoLcvhXi59TzKsb60002022-10-13T20:58:40.177ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/15hK5aaeE4VNCwtCUoafbahttps://video.igem.org/lazy-static/thumbnails/8c5bf4bf-b5b7-43f3-9e39-a0923479b14e.jpgiGEMx- Kenani Kenani: The story of a Biotech startup: from a software engineer's perspectiveKenani Kenani is the CIO and Co-founder of Umkele Ltd, a biotech startup developing sustainable next-gen materials to combat global waste & pollution. Being a software engineer, he supported team ZIMMUTI in iGEM EPIC and has been an integral part of the team ever since. He will reveal the story of startup development from his own perspective.https://static.igem.org/peertube/streaming-playlists/hls/00994b07-81b3-4f6b-9427-195a5cdb1c0d/da6150c4-5451-4a21-9eaa-d32c20f06b82-master.m3u8https://video.igem.org/videos/embed/15hK5aaeE4VNCwtCUoafba29920192022-10-13T22:17:53.262ZYESiGEM CommunityNOhttps://video.igem.org/w/usDWTpXuUgDnnTwd8rZ897https://video.igem.org/lazy-static/thumbnails/83a13545-4856-46f9-b229-a4494802a76c.jpgITESO_Guadalajara: BerryVax, the best of biotechnology and agronomy (2022) [English]Berries are one of the most important type of fruits in Mexico, with 900. 000 tons being produced each year. Pests, climate change and water scarcity were damaging our producers and their fields. With the help of local and native producers, at iGEM ITESO we decided to give life to Berryvax, an integrated biotechnological solution based on respect and care for the Earth. Berryvax is capable of bettering the plants’ immune system, protecting them against pathogenic fungi, improving fruit quality and lowering water consumption of each plant. https://2022.igem.wiki/iteso-guadalajara/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/e6789b12-5c90-408c-aac2-8089285875aa/b6160fa8-daeb-4585-8f41-77c1e4094b53-master.m3u8https://video.igem.org/videos/embed/usDWTpXuUgDnnTwd8rZ897117022022-10-13T22:13:50.300ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fqbs5j2agUKScGeifiwoG9https://video.igem.org/lazy-static/thumbnails/78f8fdaf-2477-43c7-a15d-1e66064f7230.jpgToronto: Primer Scorer Demo (2022)A demonstration of what the Primer Scorer looks like. https://2022.igem.wiki/toronto/https://static.igem.org/peertube/streaming-playlists/hls/74c03b42-d1ac-408b-8590-81850bb8a070/de2187fd-efac-4db4-8611-67b453f6ce8a-master.m3u8https://video.igem.org/videos/embed/fqbs5j2agUKScGeifiwoG9490132022-10-13T22:46:49.922ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/hUrfyrzj9HWXdkLA9ESCiQhttps://video.igem.org/lazy-static/thumbnails/1104a1cb-fd2b-4b03-a0ed-37f82a030e09.jpgCosta_Rica: A little bit of our Public Engagement actions (2022) [English]Costa_Rica: A little bit of our Public Engagement actions (2022) [English]https://static.igem.org/peertube/streaming-playlists/hls/88e474c2-adee-41a7-8c12-733268515fca/1f914c02-b4a6-4850-a279-eccac120ed7f-master.m3u8https://video.igem.org/videos/embed/hUrfyrzj9HWXdkLA9ESCiQ176042022-10-13T23:52:49.640ZComunicationActionsPublic engagementCosta RicaInterviewsYESiGEM 2022 TeamsNOhttps://video.igem.org/w/d58s5fsseZzYgsFcNCdXt9https://video.igem.org/lazy-static/thumbnails/7a44e942-60aa-45b8-bfe9-704b52779ffe.jpgITESO_Guadalajara: SYN Sentido with team Patras (2022) [English]Learn more about team Patras and don´t forget to listen to the Cadmium Buzzhttps://static.igem.org/peertube/streaming-playlists/hls/61c13add-70a4-47cf-a80c-934ce120e202/96fd04d3-4611-433c-9c1c-fae475792b64-master.m3u8https://video.igem.org/videos/embed/d58s5fsseZzYgsFcNCdXt9909042022-10-14T01:33:36.319ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/cjqpHNHAq3W6or2yM6uG4Ghttps://video.igem.org/lazy-static/thumbnails/514ff4c2-38c0-4ee9-8022-9082e5b2d5ff.jpgITESO_Guadalajara: SYN Sentido - And after studying the college career? (2022) [English]Learn more about the possibilities of being in STEM and don't forget to listen to Podcast with iGEM Patras 2022!https://static.igem.org/peertube/streaming-playlists/hls/5ba6f4a7-f2a1-417c-bfca-4c005b3ba4c6/e848c480-607e-4999-8f64-fa22580f1177-master.m3u8https://video.igem.org/videos/embed/cjqpHNHAq3W6or2yM6uG4G1424022022-10-14T01:49:01.639ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/1N7PUK1qtKiUYm4LUwWCNChttps://video.igem.org/lazy-static/thumbnails/f37ef56f-5258-4e2a-bfa0-f1b2e282f98d.jpgIISER-Tirupati_India: design_2 (2022)IISER-Tirupati_India: design_2 (2022)https://static.igem.org/peertube/streaming-playlists/hls/06706b8c-13b8-48e5-b404-4c989b8532f0/eff7bf10-7d50-4011-b1a9-5d1a4d338b26-master.m3u8https://video.igem.org/videos/embed/1N7PUK1qtKiUYm4LUwWCNC57032022-10-14T02:14:19.167ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/gEaiYFmmgHoXLuxoG8TReRhttps://video.igem.org/lazy-static/thumbnails/28bbbe1c-98fa-4b42-bb53-a8590bfa4907.jpgIISER-Tirupati_India: designnew (2022)IISER-Tirupati_India: designnew (2022)https://static.igem.org/peertube/streaming-playlists/hls/7ecd14a3-9dea-437c-a210-07ac1e03986f/b726009d-f6f2-4625-9cab-3e0a3aaf6d91-master.m3u8https://video.igem.org/videos/embed/gEaiYFmmgHoXLuxoG8TReR160262022-10-14T02:57:45.557ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/sPawzN8TKxzjB7RJwKMVQAhttps://video.igem.org/lazy-static/thumbnails/d39a4123-72fa-4e0b-8c18-486aa40c8693.jpgHK_CPU-WYY: Project SSS (2022) - Team Presentation [English]**Title:** Project SSS **Description:** Inspired by the production of insulin, we came up with the idea of producing abundant spider silk in order to utilize such wonderful materials to replace the current materials to enhance the quality of products and promote environmental protection by synthetic biology. In this project, we aim to engineer E.coli BL21 to produce a protein named spidroin, the basic unit of spider silk. Masp1, Masp2 and NT2RepCT are planned to be manufactured. Based on our modeling result, we have predicted the concentration of IPTG needed to make an ideal spider silk. In the future, the mechanical properties of silk products, like strength, will be adjusted by controlling the proportion of spidroin with different properties. Thus, we hope to obtain spidroin with different properties to cater to different needs, like as string of musical instruments or as bio-concrete to stabilize the collapsing buildings, hence providing alternative materials for other goods. [Wiki](https://2022.igem.wiki/hk-cpu-wyy)https://static.igem.org/peertube/streaming-playlists/hls/d9236f0a-31bc-483d-80e6-61a3b3dc33ee/8f435754-3375-4e57-b60e-faf59c53c8ff-master.m3u8https://video.igem.org/videos/embed/sPawzN8TKxzjB7RJwKMVQA883002022-10-14T13:42:10.392ZYES2022 Team PresentationsNOhttps://video.igem.org/w/9hg1yfqrHEcy8CRYxf2Bvahttps://video.igem.org/lazy-static/thumbnails/4574f18c-8d24-41d9-9d67-19fad1efe278.jpgZJUintl-China: Ambrosia-T (2022) - Team Presentation [English]**Title:** Ambrosia-T **Description:** Massive cellular senescence is accompanied by the onset of various age-related diseases leading to irreversible aging. Previous studies have demonstrated that removal of senescent cells can reverse aging. Tissue fibrosis is a aging hallmark, characterized by senescent fibroblasts. Furthermore, based on single-cell data analysis and immunochemistry, DPP4 were highly expressed on the surface of aged fibroblasts rather than on young fibroblasts. To address the concerns and reverse senescence-associated phenotypes, we designed a novel and efficient system for removal of these senescent fibroblasts with the help of assembled DPP4-targeting CAR-T immunotherapy. Due to the side effects of CAR-T system, cytokine release syndrome (CRS), we have also designed a negative feedback circuit with detecting the concentration of IL-6, markers of CRS. With the constant function of our project, anti-aging CAR-T, the harmful senescent fibroblasts are eradicated without severe side effects and the grand vision of rejuvenating with one shot will be realized. [Wiki](https://2022.igem.wiki/zjuintl-china)https://static.igem.org/peertube/streaming-playlists/hls/430e4274-3d88-440f-91b7-1e922619346f/4db781ca-38dd-4480-9772-6d970de567f1-master.m3u8https://video.igem.org/videos/embed/9hg1yfqrHEcy8CRYxf2Bva897052022-10-17T02:47:58.195ZYES2022 Team PresentationsNOhttps://video.igem.org/w/nBr5gKvVknmwWvGEMCLPpchttps://video.igem.org/lazy-static/thumbnails/4ca9fc3c-843e-4c88-afe8-8921f2d327f6.jpgSubCat_China: Probiotics with efficient heterologous expression of lipase for di... (2022) - Team...**Title:** Probiotics with efficient heterologous expression of lipase for dietary supplement **Description:** Nowadays, many people face the problem of incomplete digestion of fats in food, which can lead to health problems such as malnutrition. In our project, we used genetic engineering techniques to create bacteria that overexpress lipase. Lipase is an enzyme that helps digest fats in the body s small intestine, which means that it may provide some relief from this health problem. We performed experiments to test enzyme activity under different conditions, helping to confirm the possibility of incorporating this technology into human practice. In the future, our project could be a dietary supplement used in a probiotic drink to benefit people who help digest fat. Key Words: malnutrition, lipase [Wiki](https://2022.igem.wiki/subcat-china)https://static.igem.org/peertube/streaming-playlists/hls/af02655f-de39-439d-a1ba-3c37b07cc39d/c1da98ce-a43a-4dbe-a73c-17d2b58d674e-master.m3u8https://video.igem.org/videos/embed/nBr5gKvVknmwWvGEMCLPpc900072022-10-17T06:54:22.864ZYES2022 Team PresentationsNOhttps://video.igem.org/w/3fakqQf5izh7ceyE6iWskfhttps://video.igem.org/lazy-static/thumbnails/885badec-f931-4717-bfb7-a8b900e9e8db.jpgSHBS-BANZ: Genetic stapler (2022) - Team Presentation [English]**Title:** Genetic stapler **Description:** CRISPR-Cas9 is the third-generation gene editing technology after the introduction of ZFN, TALENs, and other gene editing technologies. In just a few years, it has swept the world and become the most mainstream gene editing system today. As research progresses, CRISPR gene-editing technology carries an implied risk of off-target, the accidental editing of other genes in the genome with unpredictable consequences. In this project, the common tool plasmids in prokaryotic expression systems are transformed, and TSD and TIR elements that can be recognized by Casposons are added to achieve site-directed insertion, which is verified by sequencing. This technology can not only play a role in the study of disease treatment methods but also become an efficient tool for upstream gene cloning. Key Words: CRISPR-Cas9, TSD, TIR, gene cloning [Wiki](https://2022.igem.wiki/shbs-banz)https://static.igem.org/peertube/streaming-playlists/hls/122c7167-06ab-4c89-86a2-977822051924/94dca5c0-13cf-48a6-9041-7f0c3bf9a80e-master.m3u8https://video.igem.org/videos/embed/3fakqQf5izh7ceyE6iWskf899032022-10-17T07:29:39.670ZYES2022 Team PresentationsNOhttps://video.igem.org/w/hJRqdFkovmeRLQhRxYjpUKhttps://video.igem.org/lazy-static/thumbnails/d83b4c88-762f-4a46-87cc-c1397feb03b9.jpgYkPaO: Gastric cancer detector (2022) - Team Presentation [English]**Title:** Gastric cancer detector **Description:** Helicobacter pylori is an anaerobic helicobacter parasitic in the human stomach, which was first isolated from the body of gastric ulcer patients by Marshall. It has been listed as a clear carcinogen. The detection of Helicobacter pylori has become an important physical examination item for the prevention of gastric cancer. The design idea of this project is to construct Helicobacter pylori 16s and cagA sequence vectors and transfer them into Escherichia coli to simulate Helicobacter pylori. Then, by constructing Cas12a and sgRNA vectors, isothermal amplification technology is used to identify the simulated Escherichia coli. This project will build a fast and convenient detection method for Helicobacter pylori, Shigella, and Salmonella based on CRISPR, help people to detect Helicobacter pylori, Shigella, and Salmonella conveniently and efficiently, and contribute to the prevention of gastric cancer. Key Words: Helicobacter pylori, CRISPR, gastric cancer [Wiki](https://2022.igem.wiki/ykpao)https://static.igem.org/peertube/streaming-playlists/hls/878de95b-a124-4ce1-a587-c6a6865b191f/4d2fe2c1-d19d-4cd1-8476-d113d1280767-master.m3u8https://video.igem.org/videos/embed/hJRqdFkovmeRLQhRxYjpUK897062022-10-17T08:08:24.997ZYES2022 Team PresentationsNOhttps://video.igem.org/w/8Pxh7NYpbFBC8kDCBivnpVhttps://video.igem.org/lazy-static/thumbnails/7fa4c0ee-100c-4f62-98f4-6c5066a55931.jpgZhejiang_United: 2 -fucosyllactose cell factory (2022) - Team Presentation [English]**Title:** 2 -fucosyllactose cell factory **Description:** 2 -fucosyllactose (2 -FL) is an ingredient in infant milk formula and plays an important role in the growth and development of infants and children. This project expresses the genes and related transporters required in the synthesis pathway of 2 -FL through chromosomal integration. Large-scale production of 2 -FL is achieved by constructing a high-yield 2 -FL Saccharomyces cerevisiae cell factory to meet market demand. Key Words: 2 -FL, Saccharomyces cerevisiae [Wiki](https://2022.igem.wiki/zhejiang-united)https://static.igem.org/peertube/streaming-playlists/hls/3f533418-121f-4fd8-9bcb-cef4aa798957/c52e3122-0639-4ea7-bdff-67c63af93254-master.m3u8https://video.igem.org/videos/embed/8Pxh7NYpbFBC8kDCBivnpV861012022-10-17T09:48:55.665ZYES2022 Team PresentationsNOhttps://video.igem.org/w/pcV9vyz16c8ToxCUbm8Q8rhttps://video.igem.org/lazy-static/thumbnails/3274b560-d5a8-4461-9914-01b216e8b584.jpgTongji_China: Bplant: A Microbial Cell Factory that Produces Bromelain of High Q... (2022) - Team...**Title:** Bplant: A Microbial Cell Factory that Produces Bromelain of High Quality **Description:** Bromelain is a plant protease which has a variety of properties, including anti-cancer activity, anti-inflammatory effect, antimicrobial effect, antibiotic potentiation, skin protection, postsurgery recovery and so on. It has a wide range of applications in the medical and food fields. Even though bromelain has great application potential, the traditional production process has issues of inefficiency, unstable source and low enzyme activity. Bplant replaced the traditional technique by synthetic biology and improved both enzymatic activity and stability by directed evolution. In the filed of fodder processing, bromelain can transform protein in feed into polypeptides and small peptides that are easy for animals to digest and absorb. It brings a variety of benefits like improving feed conversion efficiency, enhancing animal disease resistance and reducing the use of antibiotics as antibiotic substitute. In this application scenario, we hope to use Bacillus subtilis as bromelain production plant for safety consideration. [Wiki](https://2022.igem.wiki/tongji-china)https://static.igem.org/peertube/streaming-playlists/hls/bbec1f9c-4f49-48e7-8ae9-a16203aebb07/16859e90-1e54-4134-86db-16c02734e530-master.m3u8https://video.igem.org/videos/embed/pcV9vyz16c8ToxCUbm8Q8r872032022-10-17T13:11:51.288ZYES2022 Team PresentationsNOhttps://video.igem.org/w/o3E7BkGc62uWpK62Yht2xPhttps://video.igem.org/lazy-static/thumbnails/091b2848-2b2d-4222-ad38-43798bf2bb83.jpgLZU-HS-China-E: S.A.T.C Saline-alkaline Tolerant E.coli (2022) - Team Presentation [English]**Title:** S.A.T.C Saline-alkaline Tolerant E.coli **Description:** Hypersaline wastewater is crushing the environment. Among various types of wastewater, water that contains Cadmium II is the most destructive one. We build special microbes that are highly saline-tolerated and capable to remove heavy-metal pollutants. We choose the biological method for filtration and use genetic methods to achieve it. Through professional experiments, we test the feasibility of our proposal. We interview specialists and exchange different ideas to improve our program s connection with society.our scheme has been recognized by experts, and we will continue to improve based on experts' suggestions in the follow-up work. [Wiki](https://2022.igem.wiki/lzu-hs-china-e)https://static.igem.org/peertube/streaming-playlists/hls/b28806d0-72ad-4eba-aae3-7335065e6651/2e27d9cb-51d6-4c72-9591-38b7284a1ee8-master.m3u8https://video.igem.org/videos/embed/o3E7BkGc62uWpK62Yht2xP842022022-10-17T13:40:09.383ZYES2022 Team PresentationsNOhttps://video.igem.org/w/1FdEwJAD8eG6HuSsHqwGNfhttps://video.igem.org/lazy-static/thumbnails/6036fc78-03a7-4e9a-8d6d-15afefa56097.jpgBasics of Science IllustrationThis video is part of the online course series “Mastering Science Communication” hosted by the Science Communication network of the iGEM Community. On the topic of scientific illustration, Etienne Raimondeau, PhD biochemist and science illustrator, gives a lesson on how to create impactful scientific illustrations. Course instructions STEP 1: Watch one video in each of the five course categories. STEP 2: Complete the assignments, one from each video you watched. STEP 3: Submit your finished assignments (at least 5 in total) as one portfolio via this form. STEP 4: Wait for us to get back to you with feedback and your certificate of completion. STEP 5 (optional): Contact us to have your portfolio displayed by us on our website. The Assignment for this video Pick a research topic and make three illustrations for three different audiences with varying levels of knowledge about the field. For example: Level 1 (Beginner): your younger sibling or your grandparents Level 2 (Intermediate) : a classmate or college student Level 3 (Expert): a professor, a coworkers from the same field, What audiences you pick for each level is your choice! Try to limit your colors to two main complementary ones, such as green and orange, but you can change the chroma (saturation) or brightness, as explained in the lesson. Submission Upload your portfolio (once completed) through this link: https://forms.monday.com/forms/b4a0cc90d1070f0633e9965cb7aeb421?r=use1 Find all details here: https://community.igem.org/projects/mastering-science-communication/ https://static.igem.org/peertube/streaming-playlists/hls/0579cfca-c0fb-4869-96ef-eb445293726a/cd58aa59-41ca-4209-a642-964aee053c39-master.m3u8https://video.igem.org/videos/embed/1FdEwJAD8eG6HuSsHqwGNf143701572022-10-17T15:37:59.879ZTutor Video (Etienne)YESiGEM CommunityNOhttps://video.igem.org/w/3kisgko32QQyda5cFyu5ENhttps://video.igem.org/lazy-static/thumbnails/99e04484-ed70-4219-92b8-99e2677110e6.jpgVisual SciComm: Merging Science and ArtThis video is part of the online course series “Mastering Science Communication” hosted by the Science Communication network of the iGEM Community. On the topic of scientific illustration, Dr. Ipsa Jain, a scientist turned illustrator, gives a lesson on how to effectively utilize visuals in science communication. Course instructions STEP 1: Watch one video in each of the five course categories. STEP 2: Complete the assignments, one from each video you watched. STEP 3: Submit your finished assignments (at least 5 in total) as one portfolio via this form. STEP 4: Wait for us to get back to you with feedback and your certificate of completion. STEP 5 (optional): Contact us to have your portfolio displayed by us on our website. The Assignment for this video Find a graphical abstract from a scientific publication of your choice. Based on this graphic, create a visual that explains the same concept but could be published in a popular science magazine, such as Scientific American. An audience not educated on the subject matter should be able to understand the visual you create. Utilize whichever tools you like: pen and paper, any drawing app on your tablet, Canva, PowerPoint, Adobe Illustrator or Photoshop. Save the illustration as a PNG, JPG or PDF for submission. Submission Upload your portfolio (once completed) through this link: https://forms.monday.com/forms/b4a0cc90d1070f0633e9965cb7aeb421?r=use1 Find all details here: https://community.igem.org/projects/mastering-science-communication/ https://static.igem.org/peertube/streaming-playlists/hls/12e42a25-ecc1-4f8f-8bb3-df84071336da/2d966062-b914-491f-b31c-d582939bb61a-master.m3u8https://video.igem.org/videos/embed/3kisgko32QQyda5cFyu5EN196901472022-10-17T15:53:44.666ZTutor Video (Ipsa)YESiGEM CommunityNOhttps://video.igem.org/w/nWg9rzJEKE68TjkCjkUxJShttps://video.igem.org/lazy-static/thumbnails/1a298dad-c5f0-4ecb-be14-6794c183ab63.jpgDigital Marketing For Science CommunicationThis video is part of the online course series “Mastering Science Communication” hosted by the Science Communication network of the iGEM Community. On the topic of Communicating to broad audiences, Isabel Mendoza Poudereux, Chief Communications Officer at The Global Plant Council gives a lesson on digital marketing for science communication. Course instructions STEP 1: Watch one video in each of the five course categories. STEP 2: Complete the assignments, one from each video you watched. STEP 3: Submit your finished assignments (at least 5 in total) as one portfolio via this form. STEP 4: Wait for us to get back to you with feedback and your certificate of completion. STEP 5 (optional): Contact us to have your portfolio displayed by us on our website. The Assignment for this video Craft a short communication plan for your current (or future) social media strategy. It doesn’t have to be perfect, just start with a brainstorm. In the end you want to have a one page long, well organized text that answers the questions: Why am I communicating the chosen science topic? Where am I communicating (platforms)? What am I going to share (text, pictures, videos9)? When is the best time to share my content on the different platforms that I choose? Who is my target audience? How am I going to manage the accounts (management tools and metrics)? Submission Upload your portfolio (once completed) through this link: https://forms.monday.com/forms/b4a0cc90d1070f0633e9965cb7aeb421?r=use1 Find all details here: https://community.igem.org/projects/mastering-science-communication/ https://static.igem.org/peertube/streaming-playlists/hls/b1a368c1-d5d6-4ac5-bd4b-0c126921bb22/b2e7695c-f32b-44c0-b6ad-f8186aa960d4-master.m3u8https://video.igem.org/videos/embed/nWg9rzJEKE68TjkCjkUxJS190002072022-10-17T15:58:46.844ZYESiGEM CommunityNOhttps://video.igem.org/w/2YasMrH3owLrqjG8Z6hfU3https://video.igem.org/lazy-static/thumbnails/6fdbb3f7-4c28-4d94-bb2f-04a778f90be2.jpgBest Practices in Science Communication: Mastering the FundamentalsThis video is part of the online course series “Mastering Science Communication” hosted by the Science Communication network of the iGEM Community. On the topic of Ethics and best practices, Joseph Opoku Gakpo, a science journalist and founder of the Opoku Gakpo Foundation gives a lesson on best practices when communicating science and how to rework complicated science concepts for different audiences. Course instructions STEP 1: Watch one video in each of the five course categories. STEP 2: Complete the assignments, one from each video you watched. STEP 3: Submit your finished assignments (at least 5 in total) as one portfolio via this form. STEP 4: Wait for us to get back to you with feedback and your certificate of completion. STEP 5 (optional): Contact us to have your portfolio displayed by us on our website. The Assignment for this video Pick a scientific definition or concept (min. 20 words, max. 250 words) and follow the process of crafting an appropriate message to share your chosen topic with your audience as explained by Joseph. Remember to follow the best practices mentioned in the video. Copy and paste the original scientific concept/definition into the document Pick and write down your chosen audience and distribution channel. Explain shortly (max. 100 words) why you choose that audience and distribution channel. Rework the concept/definition for your chosen audience. You may use images or create a video. Submission Upload your portfolio (once completed) through this link: https://forms.monday.com/forms/b4a0cc90d1070f0633e9965cb7aeb421?r=use1 Find all details here: https://community.igem.org/projects/mastering-science-communication/ https://static.igem.org/peertube/streaming-playlists/hls/0ff09eed-872b-4058-8348-5ce2d1aaadf2/1db3ee2b-408d-4cf2-9ccf-8bc3c49bfa6e-master.m3u8https://video.igem.org/videos/embed/2YasMrH3owLrqjG8Z6hfU3128601622022-10-17T16:08:03.635ZTutor Video (Joseph)YESiGEM CommunityNOhttps://video.igem.org/w/vsCYiYTong6CdxPyFaEAfQhttps://video.igem.org/lazy-static/thumbnails/5118fd98-44d3-4dd4-8785-b907777f7963.jpgCall to action: It is your turn now!This video is the last part of the online course series “Mastering Science Communication” hosted by the Science Communication network of the iGEM Community. In this video the Science Communication Steering Group is sharing some final Tips and Tricks to get you started on your Science Communication journey. It is your turn now! Congratulations for completing the video lessons! We are looking forward to your task portfolio! To submit the portfolio please follow the instructions on the program website. Lastly do not hesitate to contact us via email and /or social media if you have questions or would like to join us. Course instructions STEP 1: Watch one video in each of the five course categories. STEP 2: Complete the assignments, one from each video you watched. STEP 3: Submit your finished assignments (at least 5 in total) as one portfolio via this form. STEP 4: Wait for us to get back to you with feedback and your certificate of completion. STEP 5 (optional): Contact us to have your portfolio displayed by us on our website. Submission Upload your portfolio (once completed) through this link: https://forms.monday.com/forms/b4a0cc90d1070f0633e9965cb7aeb421?r=use1 Find all details here: https://community.igem.org/projects/mastering-science-communication/ https://static.igem.org/peertube/streaming-playlists/hls/ee9124ac-e42c-4734-bb5c-3f8010435984/265f8424-190c-45a0-ace2-e03ec50dfb2b-master.m3u8https://video.igem.org/videos/embed/vsCYiYTong6CdxPyFaEAfQ4840412022-10-17T16:09:24.507ZYESiGEM CommunityNOhttps://video.igem.org/w/bmVp54yTVzEQTu71zFjFMphttps://video.igem.org/lazy-static/thumbnails/67ab45e6-e2f1-4521-9418-8533c11ee73f.jpgBeijing_United: Modification of SbPETase in Escherichia coli and the establishme... (2022) - Team...**Title:** Modification of SbPETase in Escherichia coli and the establishment of its efficient secretion system **Description:** Polyethylene terephthalate (PET), one of the most widely used plastics in the world, is currently causing serious environmental pollution. In recent years, more and more researchers have focused on the enzymatic degradation of PET, which is a more environmentally friendly degradation and recycling method than the traditional chemical and physical recycling methods. In this study, the team established an efficient secretion system of PET degradation enzyme in E. coli BL21(DE3) using the signal peptide PelB and the colistin-releasing protein Kil, which not only improved the enzyme yield but also greatly simplified the purification process of PET degradation enzyme. This provided a more convenient tool for further study of the enzyme. In addition, the team rationalized the PET hydrolase SbPETase from Schlegelella brevitalea sp. nov. and used the established secretion system to rapidly screen for triple mutants with significantly increased activity. Key Words: PET, PelB, Kil [Wiki](https://2022.igem.wiki/beijing-united)https://static.igem.org/peertube/streaming-playlists/hls/53e72b66-da00-4270-90a8-c15a88fd71a5/ae0506eb-55e2-4cb4-938e-b1390ba0f388-master.m3u8https://video.igem.org/videos/embed/bmVp54yTVzEQTu71zFjFMp839012022-10-18T02:20:59.341ZYES2022 Team PresentationsNOhttps://video.igem.org/w/7U7sJdMureKbfokkwk6LyGhttps://video.igem.org/lazy-static/thumbnails/ad7fe510-b3a2-4c82-a224-748515ac627e.jpgJiangsu_United: Targeting FoxO1 for anti-T2DM drug development (2022) - Team Presentation [English]**Title:** Targeting FoxO1 for anti-T2DM drug development **Description:** Approximately 537 million people around the world suffer from diabetes, while 90% of which are type 2, such disease affects the body s response or production of insulin, thus limiting one s capability of controlling blood sugar levels. Current solutions to this potentially fatal condition are accepted as commonplace in their treatment. However, this inaccessibility to life-saving medicine prompted us to find an alternative to treating symptoms of type 2 diabetes. We constructed a drug screening platform targeting FoxO1, a primary controller for glucose production. And it was successfully screened that compound 355 has the activity of inhibiting the FoxO1 gene. This compound provides a root solution for diabetes, lowering glucose levels in the blood without the need for insulin. We aim for this treatment to be a tablet-pill-based medicine, and more affordable to the general masses. Key Words: FoxO1, diabetes [Wiki](https://2022.igem.wiki/jiangsu-united)https://static.igem.org/peertube/streaming-playlists/hls/37dd7d58-1cca-4f62-b14c-8b3ccc145d90/8cffcef3-43c1-4c36-8e39-e0ed2071eef2-master.m3u8https://video.igem.org/videos/embed/7U7sJdMureKbfokkwk6LyG897022022-10-18T02:27:10.960ZYES2022 Team PresentationsNOhttps://video.igem.org/w/rfv1ZhoNeZrTDaUiDssKV5https://video.igem.org/lazy-static/thumbnails/593c4535-b5e5-4481-9bd6-7622af7acf8d.jpgIvyMaker-China: The Fully-armed PET Buster (2022) - Team Presentation [English]**Title:** The Fully-armed PET Buster **Description:** Based on previous studies, we developed a surface display system for Candida tropicalis. We used the system to display PETase and MHETase separately, and found that both enzymes were active and had obvious degradation effects on PET film and powder. To increase the effectiveness and convenience of the degradation of PET plastic, we plan to display MHETase and PETase at the same time. Hence, our goal is to develop a self-assembled multi-enzyme display system of Candida tropicalis. To attain co-display, we combined our display system with two selective protein binding systems, SpyTag-SpyCatcher and SnoopTag-SnoopCatcher. To improve PET plastic degradation efficiency, we imitated cellulosome and controlled the ratio and display sequence of PETase and MHETase enzymes. Additionally, the surface display multi-enzyme self-assembly system that we developed can be applied to fields other than plastic degradation. [Wiki](https://2022.igem.wiki/ivymaker-china)https://static.igem.org/peertube/streaming-playlists/hls/cc7ac2fc-1051-4975-9836-3dd4d3d13822/55350527-4e86-4f26-b99d-d568819b745b-master.m3u8https://video.igem.org/videos/embed/rfv1ZhoNeZrTDaUiDssKV5829032022-10-18T03:17:55.196ZYES2022 Team PresentationsNOhttps://video.igem.org/w/32GomJ81qCACXmtCRLxTT7https://video.igem.org/lazy-static/thumbnails/58e39855-8a2e-43d1-96b9-0cf3207a5f5f.jpgSHSID: Caries Prevention Plus (2022) - Team Presentation [English]**Title:** Caries Prevention Plus **Description:** Caries is a bacterial infection that occurs in dental tissue. This project upgrades genetically engineered bacteria, which can not only specifically kill Streptococcus mutans that cause caries, but also effectively prevent the Formation of biofilm and dissolution of biofilm that has already formed, preventing caries. The principle of this project is by constructing the DexA plasmid and the ClyR plasmid, using the Escherichia coli Nissle 1917 strain to obtain DexA and ClyR engineering strains, measure the enzyme secretion and enzyme activity by SDS-PAGE and reducing sugar method, and testing its ability to inhibit the formation of Streptococcus mutans biofilm and break the biofilm achieves the dual effect of removing the biofilm barrier and lysing caries bacteria. This project has great potential in the prevention and treatment of dental caries. Key Words: Caries, DexA, ClyR [Wiki](https://2022.igem.wiki/shsid)https://static.igem.org/peertube/streaming-playlists/hls/106ee8d6-601e-47b7-b34f-730205cf3d78/2a7b4dcc-374c-483b-a4bf-a969640b0fee-master.m3u8https://video.igem.org/videos/embed/32GomJ81qCACXmtCRLxTT7897012022-10-18T04:10:14.206ZYES2022 Team PresentationsNOhttps://video.igem.org/w/agfgWx5m7FvACwtJdY6MvPhttps://video.igem.org/lazy-static/thumbnails/75f06210-2c79-4bc4-8d23-339dbf7792e5.jpgTongji_Software: AcrGPS Anti-CRISPR Genome-based Predicting Software (2022) - Team Presentation [...**Title:** AcrGPS Anti-CRISPR Genome-based Predicting Software **Description:** As a product of the viral resistance defense mechanism, Anti-CRISPR proteins can effectively inhibit the operation of the CRISPR-Cas immune system. This kind of protein has the advantages of diverse intrinsic mechanisms, broad-spectrum, ease of use, and is genetically encodable. Therefore, it not only improves gene editing safety by reducing off-target effects but also has great potential for development and use in the field of synthetic biology. Our software constructs a prediction model based on the Random Forest algorithm by computing, extracting, and integrating features in the protein itself as well as in the genomic sequence to find the most likely candidates from the input complete genome, hoping to provide biology researchers and synthetic biologists with an integrated and convenient Anti-CRISPR protein mining tool. [Wiki](https://2022.igem.wiki/tongji-software)https://static.igem.org/peertube/streaming-playlists/hls/4b0333a0-813d-4a38-9f08-f3cd85785fdd/1dd1885b-d6aa-432f-9044-6e533e732f45-master.m3u8https://video.igem.org/videos/embed/agfgWx5m7FvACwtJdY6MvP795052022-10-18T05:28:15.307ZYES2022 Team PresentationsNOhttps://video.igem.org/w/427EeD1g1QwdVXk2e7mySHhttps://video.igem.org/lazy-static/thumbnails/eee74630-a0b6-411c-a359-7c19f1fb2776.jpgSUSTech_EMB: Intellectual diagnosis and exosome-based target therapy of NSCLC (2022) - Team Prese...**Title:** Intellectual diagnosis and exosome-based target therapy of NSCLC **Description:** It is head-scratching when mentioned lung cancer, especially non-small cell lung cancer (NSCLC), which comprises 85 90% of lung cancers. This year SUSTech_EMB developed a system called ExMart to provide NSCLC patients with personalized intellectual diagnosis and accurate treatment. Our machine learning-based algorithm can give accurate and rapid diagnosis using lung CT images of patients. Once diagnosed with NSCLC, patients will receive engineered exosomes containing monobody which has been biosafety-checked, can specifically inhibits tumor growth by inhibiting KRAS. Mathematical models of exosome secretion and exosome-mediate drug delivery are built to evaluate and maximize the efficiency of our system. SUSTech_EMB wants to help NSCLC patients with early diagnosis and accurate treatment to improve their living condition. [Wiki](https://2022.igem.wiki/sustech-emb)https://static.igem.org/peertube/streaming-playlists/hls/1873437e-2e68-4e05-84be-6a14e3b1c95d/e25d8dd8-cb62-43bf-a7c7-575d445681c0-master.m3u8https://video.igem.org/videos/embed/427EeD1g1QwdVXk2e7mySH617012022-10-18T05:56:48.456ZYES2022 Team PresentationsNOhttps://video.igem.org/w/538DhEofHvzenHMF5RhBoHhttps://video.igem.org/lazy-static/thumbnails/a94ba417-8aeb-4d59-b646-0693d5d9a340.jpgShanghai_city: Fish tank scavenger (2022) - Team Presentation [English]**Title:** Fish tank scavenger **Description:** This research aims to find an alternative solution to bacterial inhibition. Currently, antibiotics are popular choices due to their effectiveness against microorganism infection, while their abuse leads to bacterial resistance issues thus posing a huge threat to global health. Antimicrobial peptides (AMPs) are alkaline polypeptides that can inhibit bacterial activity without causing bacterial resistance. For this issue, we developed five types of AMPs based on the following functional genes: Hydramacin-1, Spheniscin-2, Sparamosin26-54, LL-37, and fusion. The target gene was integrated into plasmid pET28a(+), expressing AMPs in E.coli BL21(DE3) competent cells. Besides the development of bacterial inhibition functions, the fusion AMP has antifungal abilities. Because the aquariums regularly replace a lot of water, we hope that the AMPs created can shed light on a more convenient method of fish tank cleaning to save water resources. Key Words: AMPs, gene [Wiki](https://2022.igem.wiki/shanghai-city)https://static.igem.org/peertube/streaming-playlists/hls/20b0c095-110f-4df2-97f3-776f2cb26d61/5af6af6c-98ea-4b3c-a33c-f0aaedc151b9-master.m3u8https://video.igem.org/videos/embed/538DhEofHvzenHMF5RhBoH872002022-10-18T06:11:34.442ZYES2022 Team PresentationsNOhttps://video.igem.org/w/5H3fxsX1VQ5vd3kLHKsYCLhttps://video.igem.org/lazy-static/thumbnails/8f342504-2ebb-4b33-bf98-79ac66de4d4b.jpgPINGHE: Biosynthesis of medium-chain fatty acid (MCFAs) by Reversing the Fatty A... (2022) - Team...**Title:** Biosynthesis of medium-chain fatty acid (MCFAs) by Reversing the Fatty Acid -Oxidation Cycle **Description:** The most of the MCFAs people use now are extracted from tropical plants, which limit the amount of medium chain triglyceride. Our goal is to strengthen the MCFAs synthesis pathway and optimize T7 initiation by over-expressing key enzymes in the reverse fatty acid -oxidation cycle in E. coli to increase the production of MCFAs. We constructed the pET28a-EGFP plasmid with a fluorescent protein. In order to find the mutation that works the best, we designed point mutations C1, C2, C3, and C4 on the T7 promoter, and constructed these four T7 promoter mutants on plasmids. We found out that the C1 mutation was the strongest promoter, which hooked up the selected mutations to the four enzymes that build the medium-chain fatty acids. This mutated promoter was then applied to the four enzymes used in our pathway to increase the amount of medium-chain fatty acids production. Key Words: MCFAs, -oxidation cycle [Wiki](https://2022.igem.wiki/pinghe)https://static.igem.org/peertube/streaming-playlists/hls/261f6faf-9a2b-46b1-9322-0f4a7bec0114/b794f00c-a6c9-4ad3-921e-2af4795d4c32-master.m3u8https://video.igem.org/videos/embed/5H3fxsX1VQ5vd3kLHKsYCL760022022-10-18T07:18:58.031ZYES2022 Team PresentationsNOhttps://video.igem.org/w/hkqa5xzWmof7V1sBK2tKdhhttps://video.igem.org/lazy-static/thumbnails/2cc936c7-f546-4c1a-8b79-6d0931c688bc.jpgCanton_HS: Autism Detector (2022) - Team Presentation [English]**Title:** Autism Detector **Description:** Autism is a developmental disorder with increasing incidence. Studies have found that the levels of tryptophan, Glutamate, and copper in autism patients are significantly increased. Our research uses biosensors to detect the levels of these substances in the blood for early screening of autism. We constructed an engineered strain of recombinant plasmid pTrc99K-trp to detect tryptophan, and constructed a CopA plasmid containing a specific promoter for detecting copper ions; and by constructing a SLC7A5 gene plasmid, we increased the level of Shanks3 to achieve the effect of treating autism. Key Words: Autism, tryptophan, Glutamate, copper, SLC7A5 [Wiki](https://2022.igem.wiki/canton-hs)https://static.igem.org/peertube/streaming-playlists/hls/84483cb7-95cb-4edf-993e-15b4bffffebc/eff89a37-81c0-4c87-bcdc-234a1ede55d2-master.m3u8https://video.igem.org/videos/embed/hkqa5xzWmof7V1sBK2tKdh887022022-10-18T07:37:39.053ZYES2022 Team PresentationsNOhttps://video.igem.org/w/fG1qQVmm3WyjbxJis95HYUhttps://video.igem.org/lazy-static/thumbnails/df1c346c-4aa5-42bf-b87b-b3d5ae9fb92a.jpgWelcome to the course!This video is the introduction to the free online course series “Mastering Science Communication” hosted by the Science Communication network of the iGEM Community. The course equips scientists with the essential skills in writing, presenting, social media, illustration, and best practices needed to realize the full potential of their research and make advances at the intersection of science and society. In this video the Science Communication Steering Group is welcoming all new learners, introducing how the course is set-up and sharing their vision for the course. Course instructions STEP 1: Watch one video in each of the five course categories. STEP 2: Complete the assignments, one from each video you watched. STEP 3: Submit your finished assignments (at least 5 in total) as one portfolio via this form. STEP 4: Wait for us to get back to you with feedback and your certificate of completion. STEP 5 (optional): Contact us to have your portfolio displayed by us on our website. Submission Upload your portfolio (once completed) through this link: https://forms.monday.com/forms/b4a0cc90d1070f0633e9965cb7aeb421?r=use1 Find all details about the course here: https://community.igem.org/projects/mastering-science-communication/ https://static.igem.org/peertube/streaming-playlists/hls/76f5f4bd-202f-4d73-a11a-b7d5650cd948/9f1b1993-ae93-4244-98ca-5d76318a8764-master.m3u8https://video.igem.org/videos/embed/fG1qQVmm3WyjbxJis95HYU34702602022-10-18T09:01:08.115ZYESiGEM CommunityNOhttps://video.igem.org/w/gUdwKJtUanvEUDeTL3jQJnhttps://video.igem.org/lazy-static/thumbnails/ba695712-7521-4dd2-b0e9-1edae2234caa.jpgCommunicating To Broad Audiences: Engaging With The MediaThis video is part of the online course series “Mastering Science Communication” hosted by the Science Communication network of the iGEM Community. On the topic of Communicating to broad audiences, Joan Conrow, a journalist, editor and communications Consultant gives a lesson on how to engage with the media and share your science with the public via op-ed and commentary pieces. Course instructions STEP 1: Watch one video in each of the five course categories. STEP 2: Complete the assignments, one from each video you watched. STEP 3: Submit your finished assignments (at least 5 in total) as one portfolio via this form. STEP 4: Wait for us to get back to you with feedback and your certificate of completion. STEP 5 (optional): Contact us to have your portfolio displayed by us on our website. The Assignment for this video Write your own op-ed or commentary piece (600-800 words) on a topic of your choice, following Joan’s guidelines. You might want to rewatch Joan’s video in a few places to be able to structure your text appropriately. When completed save your opinion piece as a PDF and add it to your portfolio. Optionally, reach out to a reporter and try to get your work published. This step is not needed to pass this course. However if you believe your piece would fit the scope of a specific magazine, try submitting it. Submission Upload your portfolio (once completed) through this link: https://forms.monday.com/forms/b4a0cc90d1070f0633e9965cb7aeb421?r=use1 Find all details here: https://community.igem.org/projects/mastering-science-communication/ https://static.igem.org/peertube/streaming-playlists/hls/80c37a5c-9aa7-46d1-997c-07bb54d84d09/6bf29614-a815-4a37-aed5-5e99a9a92f02-master.m3u8https://video.igem.org/videos/embed/gUdwKJtUanvEUDeTL3jQJn212202482022-10-18T09:14:53.334ZTutor Video (Joan)YESiGEM CommunityNOhttps://video.igem.org/w/tWTtHwdJwzuTsYzXd6WF5Zhttps://video.igem.org/lazy-static/thumbnails/04599ddb-6527-4a29-9515-68d8eb0ff0cd.jpgHBUT-China: Antioxidant Alchemy: Cutting-edge synthesis of the potent antioxidan... (2022) - Team...**Title:** Antioxidant Alchemy: Cutting-edge synthesis of the potent antioxidant Ergothioneine **Description:** Aging and diseases are associated with the production of excess free radicals. Finding an effective way to scavenge free radicals is thought to be one of food and cosmetic industries. Ergothioneine (EGT), a natural antioxidant, which is commonly found in mushrooms, has fairly powerful properties. However, human body cannot synthesize it, as a result, there is a huge market demand for the production of Ergothioneine. Our main goal is to achieve higher production of EGT. We engineered s yeast Saccharomyces cerevisiae as a chassis for the production of EGT. We applied CRISPR-Cas9 technology to integrate two genes into the yeast genome, and succeeded in constructing EGT biosynthesis pathway in S.cerevisiae. Additionally, the production can be further improved after optimizing the media with proper concentration of amino acids, which is the precursor of EGT. This work offers a more sustainable, low cost and efficient approach for the industrial production of EGT. [Wiki](https://2022.igem.wiki/hbut-china)https://static.igem.org/peertube/streaming-playlists/hls/e250a1ba-e640-463f-a49d-bbdc7384d51d/f69a4b79-8519-4b36-a8d3-98d06ce0d94f-master.m3u8https://video.igem.org/videos/embed/tWTtHwdJwzuTsYzXd6WF5Z722042022-10-18T09:23:25.729ZYES2022 Team PresentationsNOhttps://video.igem.org/w/h2P23sSACbN6fhU9rw8eVkhttps://video.igem.org/lazy-static/thumbnails/d9d6442d-5827-41c5-b21b-98a18d267311.jpgLZU-HS-Pro-B: One test per day, keep the pain away (2022) - Team Presentation [English]**Title:** One test per day, keep the pain away **Description:** Nowadays, the main method to test urine acid is through taking blood samples, which is invasive, and also inconvenient for patients. Therefore, with the knowledge of synthetic biology, our team is currently designing a non-impairment uric acid sensor that replaces blood tests with urine tests, more precisely, a uric acid test method conducted using urine collected from patients. The test consists of the following three steps. Firstly, the sensor system works as the specific genes transcribe and release signals with the detection of uric acid in the urine. Secondly, the amplification system magnifies the fluorescent signal of the engineered bacteria by compounding DNA sequence hrpRS. Thirdly, the luminosity system displays light signal that could be used to calculate the uric acid concentration. With this invention, we hope to promote a healthier and more convenient 'painless world'. [Wiki](https://2022.igem.wiki/lzu-hs-pro-b)https://static.igem.org/peertube/streaming-playlists/hls/81d2f02c-eeac-4641-902d-f7801ffaa681/7a187bac-e4fd-4e2c-b4cb-5764b80ae74c-master.m3u8https://video.igem.org/videos/embed/h2P23sSACbN6fhU9rw8eVk893012022-10-18T10:39:01.330ZYES2022 Team PresentationsNOhttps://video.igem.org/w/s8gvzViaAMuuY47YyV2DNChttps://video.igem.org/lazy-static/thumbnails/1e5afafb-c424-4839-b2f9-e2549693ba20.jpgBS_United_China: S. aureus Bacterial Inhibition with TurboID (2022) - Project Promotion [English]**Title:** S. aureus Bacterial Inhibition with TurboID **Description:** During community communications, we often hear about a pathogenic bacterium, Staphylococcus aureus. Our main goal is to use protein proximity labeling to make S.aureus harmless within vivo. TurboID can catalyze biotin and ATP it carried to produce Biotinyl-5'-AMP, and label the lysine that are approximate to the active site. After labeling, the bacteria will not be able to activate the gene of virulence production. Such process can be accomplished within ten minutes in 25℃, which is the most efficient and reachable method by far. This method will not only be able to inhibit Staphylococcus aureus but it can also target other bacteria with further research. Because protein proximity labeling requires ATP and biotin, so we chose to utilize engineered E. coli to produce what we needed. Since ATP in organisms are adequate, increasing the production of biotin became our main goal. We will put the artificially modified plasmid back into E. coli to express the target product so as to increase the biotin synthase and increase the biotin production. By using bioengineering, the cost of our product would be more affordable for the public. We are honored to a part of this science research with such influence as high school students; furthermore, we believe that the world could be benefited from our findings. [Wiki](https://2022.igem.wiki/bs-united-china)https://static.igem.org/peertube/streaming-playlists/hls/d3915eb6-df96-4e19-b53a-45c51b07833c/ffca51b3-b661-48a2-9e88-c8a04d226461-master.m3u8https://video.igem.org/videos/embed/s8gvzViaAMuuY47YyV2DNC12004752022-10-18T10:56:46.495ZFoodContaminationTurboIDS.AureusInhibitionYES2022 Project PromotionsNOhttps://video.igem.org/w/42cXw24Zo8wafujv7TbbmRhttps://video.igem.org/lazy-static/thumbnails/db8b655a-cad6-4822-9285-35e487325f0b.jpgGuangxi-U-China: Engineered Bacteria for Immunotherapy of Triple Negative Breast... (2022) - Team...**Title:** Engineered Bacteria for Immunotherapy of Triple Negative Breast Cancer **Description:** Treatment of triple negative breast cancer is difficult because of the absence of specific targets, low chemotherapy responses and immune escapes. We are aimed to reverse the noninflammatory polarization of tumor associated macrophages with engineered bacteria that can clear away lactic acid from glycolytic metabolism. Engineered E. coli Nissle 1917 bacteria with acid/base inducible promoters are designed to live on lactate, carry monocarboxylate transporters, target cancerous cells and promote phagocytic activities of macrophages. Experimental protocols for determining activities of RNases in tumor and normal tissues and co-culture of cancer cells with bacteria are established. Mathematic models are developed for epidemiological questionnaire and the dynamics of glucose metabolism with chromatographic measurement. Metabolomic and proteomic changes are identified and imaged with mass spectrometry. A prototype portable photoacoustic device and software are developed for the detection of solid tumors. We have been dedicated to raising public awareness, providing educational and social services. [Wiki](https://2022.igem.wiki/guangxi-u-china)https://static.igem.org/peertube/streaming-playlists/hls/18768754-ade9-46eb-bc5c-33ff374c07e1/e792fe7e-f836-4487-82c7-088c31c6bea3-master.m3u8https://video.igem.org/videos/embed/42cXw24Zo8wafujv7TbbmR792032022-10-18T11:59:56.593ZYES2022 Team PresentationsNOhttps://video.igem.org/w/xsMbks3Wx42ib2zJ65d7zzhttps://video.igem.org/lazy-static/thumbnails/363ffab9-d2c6-435a-a7e3-e59b117c63f2.jpgXHD-Wuhan-China: An advanced copper sensor (2022) - Team Presentation [English]**Title:** An advanced copper sensor **Description:** Copper is a common heavy metal pollutant. Currently, copper from agricultural, industrial and mining waste is released into the aquatic environment, posing a serious threat to the stability of ecosystems. The lack of effective early warning tools for copper contamination has resulted in many negative impacts. For this purpose, Escherichia coli BL21 was genetically modified to carry the promoters pcutR, OprF and ribB, the cell membrane permeability of the engineered strain was increased, and its riboflavin production was positively correlated with the copper ion concentration, and then the biosynthetic strain was used for Biosensors based on microbial fuel cells provide a better method for the detection of copper ion-contaminated water bodies. [Wiki](https://2022.igem.wiki/xhd-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/fec87a81-0f36-4121-b0ba-74bd446992b3/565481bd-467c-43cf-8d8f-e71fbdaff412-master.m3u8https://video.igem.org/videos/embed/xsMbks3Wx42ib2zJ65d7zz898002022-10-18T12:05:22.540ZYES2022 Team PresentationsNOhttps://video.igem.org/w/bX5U6r3hcfY4uEcPK4DbT2https://video.igem.org/lazy-static/thumbnails/5a140c7b-aeed-424b-ae06-c7a7eaaf3e37.jpgNEU_CHINA: RTAC, ready for cancer attack. (2022) - Team Presentation [English]**Title:** RTAC, ready for cancer attack. **Description:** RSPOs (R-spondins) belong to a family of secreted proteins that was the leading cause of various cancers. In iGEM2022, NEU_CHINA team focused on developing a novel cancer targeted-therapy against all RSPOs. We originally designed and characterized a chimeric protein RTAC (RSPO-Targeting Anti-cancer Chimeric protein) through protein engineering. RTAC showed satisfactory anti-cancer effect through inhibition of RSPO-mediated Wnt/ -catenin signaling activation. For further improvement, a S.Cerevisiae-based probiotic was engineered, named as R-yeast, to deliver RTAC to RSPO-hyperactivated colorectal cancer locally. The mating pathway of R-yeast was reprogrammed to specifically sense the tumor environment-specific molecules, thus expressing RTAC in a self-tunable manner. Meanwhile, a unique copper-dependent kill switch was implanted to avoid R-yeast from causing potential environmental hazard. Collectively, we have presented the proof-of-concept of a novel anti-pan-RSPO protein and a probiotic with self-controllable machineries for cancer targeted treatment. Our work thus promises great value in synthetic biological research and translational medicine. [Wiki](https://2022.igem.wiki/neu-china)https://static.igem.org/peertube/streaming-playlists/hls/58ac5003-6b3d-440c-9144-bc259630c30f/4356890b-ff56-45a4-ae15-bd980ee3eaf3-master.m3u8https://video.igem.org/videos/embed/bX5U6r3hcfY4uEcPK4DbT2850062022-10-18T13:58:20.100ZYES2022 Team PresentationsNOhttps://video.igem.org/w/4DQPnmnZESsKydnnVFN9Krhttps://video.igem.org/lazy-static/thumbnails/cde90205-c788-42ed-bbd4-b04281730670.jpgWorldshaper-Shanghai: The Smurfs: Anti-aging anthocyanins produced in hairy root... (2022) - Team...**Title:** The Smurfs: Anti-aging anthocyanins produced in hairy root cultures **Description:** With the property to eliminate free radicals, anthocyanins have become popular anti-aging natural products which can be used as edible colourants. However, traditional anthocyanin industry requires intensive farming that occupies a lot of arable land, relies on climates and seasons and is also inefficient and wasteful during anthocyanin extracting. In our project, a beta-estradiol induciable system was employed for expression of two transcription factors regulating anthocyanin biosynthesis from Scutellaria baicalensis. An anthocyanin synthesis pathway was constructed in carrot hairy roots and then the hairy roots were induced to produce anthocyanins with high stability, high effectiveness and less hazard. With the culturing of carrot hairy roots in vitro, a controllable way of anthocyanin production was developed. In the future, our project is committed to make anthocyanins into easily accessible food pigments so that anyone can delay people's aging processes. [Wiki](https://2022.igem.wiki/worldshaper-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/1d940513-441e-4722-b62c-af64d0a40577/498fead4-2f78-4259-b6b6-69350afa88fc-master.m3u8https://video.igem.org/videos/embed/4DQPnmnZESsKydnnVFN9Kr8310102022-10-18T14:20:25.428ZYES2022 Team PresentationsNOhttps://video.igem.org/w/cbbUEE91qERrFd1RmHnLFbhttps://video.igem.org/lazy-static/thumbnails/02a0c24b-b22b-46f8-a8c9-f5068c4e4a7f.jpgHiZJU-China: Teafender (2022) - Team Presentation [English]**Title:** Teafender **Description:** Toxoptera aurantii, also known as tea aphid, is widely distributed in Jiangsu, Guangdong province and so on. In addition to harming tea trees and oil tea,it also do damage to citrus, litchi, etc. In our project, we will introduce the gene of the G protein-coupled receptor HarmOR10 from Helicoverpa armigera into yeast. Then we will use our engineered bacteria to detect benzaldehyde secreted by tea trees after Toxoptera aurantii infestation and release the sex pheromones of Toxoptera aurantii whose composition including nepetalactone and nepetalactol. We also hope that the nepetalactone and nepetalactol are in a ratio which is as close as possible to the ratio of the components of the tea aphid sex pheromone. This project is aimed at Interfering with the mating of Toxoptera aurantii and attracting natural enemies of Toxoptera aurantii, which will ultimately reduce the infestation of Toxoptera aurantii in tea plantations. [Wiki](https://2022.igem.wiki/hizju-china)https://static.igem.org/peertube/streaming-playlists/hls/5a80af6e-8927-4224-a4de-094893db38a8/7ebc4476-0ccf-4bf5-b54b-1080e899a512-master.m3u8https://video.igem.org/videos/embed/cbbUEE91qERrFd1RmHnLFb752032022-10-18T14:55:01.142ZYES2022 Team PresentationsNOhttps://video.igem.org/w/5C3ZXG5M1daMYHeG6kesMLhttps://video.igem.org/lazy-static/thumbnails/09c4d26f-1e5e-4df4-8ebd-d27c08a8d90e.jpgXHD-Wuhan-Pro-China: Zinc Dreamcatcher (2022) - Team Presentation [English]**Title:** Zinc Dreamcatcher **Description:** Our project aims to provide a new answer to the problem of zinc contamination with zinc sensors. The modified instrument can sense the concentration of zinc ions in a solution, becoming a sensor similar to a galvanic cell. Depending on the concentration of zinc ions in the solution, the current and voltage in the circuit are changed to measure the concentration of zinc ions in industrial wastewater. In this experiment, we use two kinds of macromolecules, one is riboflavin, and another one is porin. The zinc sensor employs the basic principles of a simple cell. Both the electrodes from the zinc sensor are carbon fiber felt electrodes with E.coli attached to the anode exclusively. The potassium iron cyanide receives electrons in the cathode. The ammeter in the external circuit of electrons measures the magnitude of current due to electrical potential. [Wiki](https://2022.igem.wiki/xhd-wuhan-pro-china)https://static.igem.org/peertube/streaming-playlists/hls/256d2dc2-bbe1-4352-84c4-00589acc4fde/66b26abe-e98d-4a3e-add8-4e01077fb49f-master.m3u8https://video.igem.org/videos/embed/5C3ZXG5M1daMYHeG6kesML880032022-10-18T15:11:02.997ZYES2022 Team PresentationsNOhttps://video.igem.org/w/mwwotCngYorjbz6i2WWvX5https://video.igem.org/lazy-static/thumbnails/62f72731-326a-43a1-8a92-7ed0a4428b71.jpgRDFZ-CHINA: Slimbiotic (2022) - Team Presentation [English]**Title:** Slimbiotic **Description:** Obesity is a serious problem that can lead to several health consequences such as cardiovascular diseases, musculoskeletal disorders, and depression. Today, more than 2 billion people are suffering from overweight and obesity worldwide. Meanwhile, existing drug therapy such as Orlistat and Liraglutide has a series of side effects. Therefore, we try to find out an alternative way to treat obesity. Through research, we found that there is a relationship between obesity, microorganisms in the human intestine, and the intestine s absorption. In our project, we aim to use synthetic biological ways to solve this problem. We engineered E.coli Nissle 1917 and plan to place it in patients intestines in the future . These E.coli with enhancing the ability of expression of long-chain fatty acid transporter protein and acetyl-CoA synthetase can intake fatty acid in the intestines, preventing FA to be absorbed by the intestine, therefore losing weight. [Wiki](https://2022.igem.wiki/rdfz-china)https://static.igem.org/peertube/streaming-playlists/hls/a639d032-dd88-4537-abef-2d545e8c78be/51c0b26c-61f8-4f4e-8c61-4d6a92f6deb8-master.m3u8https://video.igem.org/videos/embed/mwwotCngYorjbz6i2WWvX5900082022-10-18T15:18:04.888ZYES2022 Team PresentationsNOhttps://video.igem.org/w/8tAibsRwf2WkntH2vE3Xdrhttps://video.igem.org/lazy-static/thumbnails/c4a380a1-7184-4455-83e9-220268d79f5c.jpgXJTLU-CHINA: SolHM: Application of new biofilm in industrial wastewater treatment (2022) - Team P...**Title:** SolHM: Application of new biofilm in industrial wastewater treatment **Description:** We designed a water purification filter system to take full advantage of engineered bacteria to treat heavy metal emissions, culminating in the blocking and adsorption recovery of a variety of heavy metal ions in the process of industrial wastewater treatment, especially in the electroplating and mining sectors in China. Our approach demonstrates that the molecular dynamics and cell kinetics model, together with subsequent wet lab measurement. Engineering simulation can develop robust and precise living systems for potential applications in synthetic biology and further environmental studies. [Wiki](https://2022.igem.wiki/xjtlu-china)https://static.igem.org/peertube/streaming-playlists/hls/3c8a302e-0bb0-4617-ac7f-7fd058e76b1d/e233b6af-1ea9-4ab9-8db5-f96bace5365a-master.m3u8https://video.igem.org/videos/embed/8tAibsRwf2WkntH2vE3Xdr775092022-10-18T16:06:40.606ZYES2022 Team PresentationsNOhttps://video.igem.org/w/uaeobyMvZsvcMSWW2hjAoChttps://video.igem.org/lazy-static/thumbnails/de387ece-dd63-4704-879c-fb176ca98c3d.jpgSUSTech_Shenzhen: Tyrian Purple Evolution (2022) - Team Presentation [English]**Title:** Tyrian Purple Evolution **Description:** We produce tyrian purple dye in E.coli by 3 enzymes: Trp 6-halogenase (Trp 6-Hal), tryptophanase (TnaA) and monooxygenase (MO). Due to TnaA can react with both tryptophan and the first step product bromotryptophan, Fre-SttH and TnaA has to be in two different strains. So the two-cell system, TnaA E. coli strain without endogenous TnaA expression and another TnaA E. coli strain with extra TnaA expression, are used to produce tyrian purple with less byproduct indigo. We optimize to one-cell system by developing a synthetic phylogeny of programmable Trp repressor with directed evolution to simplify the process of reacting with bromotryptophan not tryptophan. Iterative rounds of positive and negative compartmentalized partnered replication (CPR) led to the exponential amplification of variants that responded with high affinity and specificity to halogenated tryptophan analogs and novel operator sites. We empower cells to perceive the relative ratio of bromotryptophan to tryptophan to control TnaA synthesis. [Wiki](https://2022.igem.wiki/sustech-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/e409d2d9-f381-4c43-91ee-669c6c93e1d8/280eb5df-532f-4fc0-8bae-a53b0859bc60-master.m3u8https://video.igem.org/videos/embed/uaeobyMvZsvcMSWW2hjAoC896012022-10-18T16:23:56.440ZYES2022 Team PresentationsNOhttps://video.igem.org/w/3tzU4vkGJkDksxvMw2RKtVhttps://video.igem.org/lazy-static/thumbnails/a832f78f-cbf4-4170-bf67-653de1936975.jpgNMU_China: Whack-a-Mole: aim for a million targets, strike with a giant hammer (2022) - Team Pres...**Title:** Whack-a-Mole: aim for a million targets, strike with a giant hammer **Description:** Cancer immunotherapies rely on one or few specific tumour-associated antigens. However, the adaptive immune system relies on a large and diverse repertoire of antibodies for antigen recognition. Here we proposed the development of libraries of genetically modified NK92 cells displaying diverse repertoires of chimaeric antigen receptors (CARs) that can recognize non-self antigens and display antigen-dependent clonal expansion, with the expanded population of tumour-specific effector cells to exert antitumour responses. In vitro experiments and mathematical models were used to prove the applicability and feasibility of synthetically generated CAR libraries. This work is similar to the game of Whack-a-Mole, where moles always pop up elsewhere (resistance cancer cell clones show up constantly based on traditional therapy); while we can use a giant hammer (synthetic cell library) to strike all the moles simultaneously. [Wiki](https://2022.igem.wiki/nmu-china)https://static.igem.org/peertube/streaming-playlists/hls/140c3fce-7bfb-4272-9d53-35578bcbe397/4e9a23a9-7a78-4257-89ac-a8cda7c9ceb9-master.m3u8https://video.igem.org/videos/embed/3tzU4vkGJkDksxvMw2RKtV859022022-10-18T16:43:46.493ZYES2022 Team PresentationsNOhttps://video.igem.org/w/dyiFYqaJ7SVEwBmZaX9CWjhttps://video.igem.org/lazy-static/thumbnails/9b180a7e-e106-4be9-96d4-2d71468922c4.jpgBFSU-ICUnited: An electrochemical enzyme biosensor for bisphenol A detection (2022) - Team Presen...**Title:** An electrochemical enzyme biosensor for bisphenol A detection **Description:** Environmental pollution has always been a critical issue, our project focuses on one of the most widely used chemicals, bisphenol A. Since its advantages in industrial production, bisphenol A has been used in plenty of aspects of the industry. However, the majority of people have nearly no awareness of how BPA is harmful to our health. It is verified to be associated with a variety of diseases. Therefore, investigating a method to detect bisphenol A is crucial. Our detection method is based on displaying tyrosinase on the surface of E. coli, followed by adsorption onto a glassy-carbon electrode. In detail, BPA can be oxidized by tyrosinase and eventually produce an electric signal. By detecting this electric signal, the concentration of BPA can be obtained. Finally, in applications, the results show our detection method can provide a better solution for BPA detection in cost, accuracy, and simplification. [Wiki](https://2022.igem.wiki/bfsu-icunited)https://static.igem.org/peertube/streaming-playlists/hls/65b05dac-1749-4ac9-8287-b2c4b3ff6cee/772e1cdf-c079-4a0b-b503-e6e3c4c597f3-master.m3u8https://video.igem.org/videos/embed/dyiFYqaJ7SVEwBmZaX9CWj897072022-10-18T17:09:51.080ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qGwggPaxQZsMSzDhiuX1Vjhttps://video.igem.org/lazy-static/thumbnails/6f93485f-6c26-4861-aca1-d4359159bd02.jpgSYSU-CHINA: ACCESS: Animalcule Co-catalytic Engineering for Salidroside Synthesis (2022) - Team P...**Title:** ACCESS: Animalcule Co-catalytic Engineering for Salidroside Synthesis **Description:** Mountaineering is a challenging journey. With the rising elevation, the insufficient oxygen level may lead to a series of syndromes, which is called high-altitude illness. Experienced mountaineers usually take Salidroside, the extracts of Rhodiola for preventing discomfort. However, unrestricted exploitation imperils the living of wild Rhodiola, which is currently listed as China national category-II protected plant. This year, we wish to achieve de novo synthesis of Salidroside in E.coli as an alternative to wild Rhodiola extracts in order to protect this precious plant. In order to avoid metabolic burden and toxicity of metabolic intermediate, we put forward the concept of modularized co-catalysis. Besides, we also conduct direct evolution using TADR system for improving the catalytic efficiency of different types of glycosyltransferases. With synthetic biology, we hope to make our contribution to biomanufacturing of Salidroside. [Wiki](https://2022.igem.wiki/sysu-china)https://static.igem.org/peertube/streaming-playlists/hls/c803baa4-9b76-4858-b988-11faf432998c/d203068e-e66f-4ba5-b035-5e97abdc1871-master.m3u8https://video.igem.org/videos/embed/qGwggPaxQZsMSzDhiuX1Vj778022022-10-18T17:20:19.048ZYES2022 Team PresentationsNOhttps://video.igem.org/w/sKKQJZDuzyKTHapgVB2ZRzhttps://video.igem.org/lazy-static/thumbnails/72ad79f6-5d4e-473c-a6fa-ce586cbe2611.jpgCPU_CHINA: Convenient and readable platform for cancer screening (2022) - Team Presentation [Engl...**Title:** Convenient and readable platform for cancer screening **Description:** 2022 CPU_-CHINA team focuses on screening and early detection of cancers, and preliminary detection of various cancers, aiming to provide more health security to people in underdeveloped areas. We used bioinformatics to screen out a lncRNA molecule that is highly correlated with the occurrence and development of more than 20 kinds of cancers and then designed a point-of-care matching detection platform system for it. The platform system is easy to operate and does not require expensive instruments to quantitatively detect the expression of lncRNA in human blood. It provides a very meaningful indicator for predicting the risk of cancer. [Wiki](https://2022.igem.wiki/cpu-china)https://static.igem.org/peertube/streaming-playlists/hls/d8a99ad7-d2c6-4478-9529-593be213fbf7/b00e13d1-490c-4760-aeaa-f1e63633050d-master.m3u8https://video.igem.org/videos/embed/sKKQJZDuzyKTHapgVB2ZRz846022022-10-18T18:16:17.117ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qPS4rXA554DC3m8428HBvXhttps://video.igem.org/lazy-static/thumbnails/8417ce76-5c10-4e31-8301-467a030e6ced.jpgBS_United_China: S. aureus Bacterial Inhibition with TurboID (2022) - Team Presentation [English]**Title:** S. aureus Bacterial Inhibition with TurboID **Description:** Staphylococcus aureus (S. aureus) threats the food safety especially for home storage. The enterotoxins can be generated by S. aureus quorum sensing (QS) system related to several genes named accessory gene regulator (Agr). Only AgrC and AgrB encode channel proteins which can react with autoinducing peptide (AIP). To block the QS channels, we utilized protein proximity labeling technology by fusing TurboID with N-AgrD and AIP. The fused proteins will bring TurboID to the quorum sensing channels AGRC and AGRB which will further be blocked by protein biotinylation on multiple lysine residues. The automatic biotinylation happens when the engineered Escherichia coli itself can produce more biotin through its own metabolic pathways. We therefore increased the expression of dethiobiotin synthetase and biotin synthase and, at the same time, knock-out of biotin consumption gene named bifunctional ligase/repressor BirA by CRISPR-Cas9. Thus, purified TurboID-AIP can be used for protecting food and our health. [Wiki](https://2022.igem.wiki/bs-united-china)https://static.igem.org/peertube/streaming-playlists/hls/c90a22a0-2605-4d71-a0ec-0991eec7006d/26e4ac8a-3a89-49d6-8b3f-318bf5a95990-master.m3u8https://video.igem.org/videos/embed/qPS4rXA554DC3m8428HBvX900012022-10-19T00:20:57.980ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qRVw4P1tJ9swPyNEEPnQVihttps://video.igem.org/lazy-static/thumbnails/f0f84534-4ec1-4eeb-943e-f9e66916d3ac.jpgUSTC-Software: MEI Modified Enzyme Interface (2022) - Team Presentation [English]**Title:** MEI Modified Enzyme Interface **Description:** Usually, a complete metabolic pathway contains multiple nodes and multi-step reactions. Sometimes there is no readily suitable enzyme in the database for the catalysis of the reaction, which brings some difficulties to the study. Although some pathway design software, such as PathPred, can predict the entire metabolic pathway, it is still inevitable that intermediate reactions will be disconnected. Therefore, Modified Enzyme Interface (MEI) is designed to provide enzyme candidates to catalyze unknown reactions. With the premise of single step reaction, MEI screened out the potential enzymes by using a structure comparison algorithm. On this basis, users can select the enzyme for further modification, which is more likely to obtain efficient enzymes that can catalyze the target reaction. With MEI, we hope to help synthetic biologists shorten the experimental time and find the desired enzyme more quickly. [Wiki](https://2022.igem.wiki/ustc-software)https://static.igem.org/peertube/streaming-playlists/hls/c953c122-f4d3-4483-a99a-a7c70cd3624b/fca8cbb4-21be-4e25-b579-9efc8c96923d-master.m3u8https://video.igem.org/videos/embed/qRVw4P1tJ9swPyNEEPnQVi767012022-10-19T00:26:24.333ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qGFtF5BXsvMWdBrNZ7cHiphttps://video.igem.org/lazy-static/thumbnails/a8890b3c-d671-4bc6-a829-23436b79cf1d.jpgEast_China: N-Butanol Cell Factory (2022) - Team Presentation [English]**Title:** N-Butanol Cell Factory **Description:** N-butanol, an organic compound (C4H10O). There is a larger demand for N-butanol than before. N-butanol can take advantage of its organic compounds to help transport hydrogen and reduce the waste of electricity, while also being a less polluting fuel. However, there are many disadvantages to the traditional N-butanol manufacturing process. Thus, our purpose is to produce N-butanol more efficiently by biosynthesis as well as be more friendly to the environment. Below is the method, Streptomyces acetobutyrate genes thl, hbd, crt, and streptomyces dentatus ter need to be cloned into plasmid expressing butanol synthetic pathway proteins. The plasmid carrying these genes with optimized codon will be introduced into the target strain through electrical transformation to test whether the transformants can successfully synthesize N-butanol. The expression of the strain will be further optimized to successfully construct lactobacillus that could produce N-butanol using glucose as raw material. Key Words: N-butanol, plasmid, gene [Wiki](https://2022.igem.wiki/east-china)https://static.igem.org/peertube/streaming-playlists/hls/c8096844-0904-4665-b9de-287a3dce0e6d/7f2abe44-0c20-42f7-9a89-84adfc792f22-master.m3u8https://video.igem.org/videos/embed/qGFtF5BXsvMWdBrNZ7cHip829022022-10-19T01:29:59.058ZYES2022 Team PresentationsNOhttps://video.igem.org/w/gDd775NypXLELBe6no77wXhttps://video.igem.org/lazy-static/thumbnails/8026d6fa-dfde-4f6f-91c6-27ed00534a5c.jpgTianjin: Micro Nuwa Base Editor and Ultra Long gRNA Array Enable DNA Data Re-edi... (2022) - Team...**Title:** Micro Nuwa Base Editor and Ultra Long gRNA Array Enable DNA Data Re-editing **Description:** DNA storage is a new opportunity to address the challenges of data storage. The project of iGEM Tianjin2022 aims to explore more possibilities of DNA storage technology. Through reasonable and unique coding algorithm, we transformed the data to be stored, such as images, music and texts, into DNA sequences that satisfy the editing needs. And then our multiplex information editing system(Micro nuwa) which contains base editor and ultra -long gRNA arrays, rewrites the data pre-stored in DNA. Ultimately, We successfully transformed one image into another image and transformed one piece of music into another piece of music. Micro nuwa serves as a powerful tool efficiently modifying the information stored in DNA. [Wiki](https://2022.igem.wiki/tianjin)https://static.igem.org/peertube/streaming-playlists/hls/7eab0f3c-a681-4250-9e89-249ea226e30b/f9661bfb-f2f7-4c7b-97b4-a1d08a122549-master.m3u8https://video.igem.org/videos/embed/gDd775NypXLELBe6no77wX825012022-10-19T02:18:18.711ZYES2022 Team PresentationsNOhttps://video.igem.org/w/twWF3YQL3udt39GdsyW7BChttps://video.igem.org/lazy-static/thumbnails/24a72455-5a81-45d5-8ca6-163305ab55ed.jpgSubCat_Shanghai: Say goodbye to tumor resistance (2022) - Team Presentation [English]**Title:** Say goodbye to tumor resistance **Description:** Glioma is the most common malignant tumor of the adult central nervous system, with high malignancy and mortality. The combination of temozolomide (TMZ) chemotherapy and radiotherapy is currently the standard first-line regimen for high-grade gliomas, but with the progress of chemotherapy, most patients will eventually develop resistance to TMZ which leads to glioma treatment failure. The results of this study provide TMZ-resistant glioma cell lines for basic and clinical research and provide potential molecular targets for reversing TMZ resistance and enhancing the effectiveness of TMZ therapy, which are of great significance for the treatment of gliomas and the improvement of patient prognosis. Key Words: Glioma, TMZ [Wiki](https://2022.igem.wiki/subcat-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/def8c023-3e3c-4cc6-8329-b6cd0b78c69a/4744d06e-8a70-46bf-b38c-1619cecd2f8b-master.m3u8https://video.igem.org/videos/embed/twWF3YQL3udt39GdsyW7BC862022022-10-19T02:33:56.898ZYES2022 Team PresentationsNOhttps://video.igem.org/w/18AFeX7s3gTj8Ev4yuhA16https://video.igem.org/lazy-static/thumbnails/7c5ddbd4-fe69-49cc-a86b-82c7bf207979.jpgShanghai_HS: Dual Oral Vaccines (2022) - Team Presentation [English]**Title:** Dual Oral Vaccines **Description:** Enteroviruses and rotaviruses are the main gastrointestinal pathogens affecting the health of infants and young children. This project intends to target two viruses, explore dual oral vaccines, and use the bifidobacteria expression system to obtain recombinant proteins expressed by the fusion of two antibodies, achieve immunity from two viruses by eating a sugar pill, and protect the health of infants and young children. The principle is to construct a VR-vp7 and EV71-vp1 fusion expression vector, import it into Escherichia coli BL21 (DE3), and then transfer it into Bifidobacterium after expression verification to verify the possibility of constructing a rotavirus/EV71 combined antibody. The oral vaccine has broad clinical application prospects. Key Words: Enteroviruses, Rotaviruses, oral vaccines [Wiki](https://2022.igem.wiki/shanghai-hs)https://static.igem.org/peertube/streaming-playlists/hls/010f939a-bc4b-4d1e-81cc-bca40486324d/cb1e72a5-4779-47b5-b7fd-cf03f8c6d5dd-master.m3u8https://video.igem.org/videos/embed/18AFeX7s3gTj8Ev4yuhA16897002022-10-19T02:51:31.179ZYES2022 Team PresentationsNOhttps://video.igem.org/w/iXPPXgRM2aMnPg3ZbdgcAphttps://video.igem.org/lazy-static/thumbnails/ac5f8790-d40e-456f-a530-85270f857ac0.jpgNanjing_HS: Diabetes Drug Screening - GK (2022) - Team Presentation [English]**Title:** Diabetes Drug Screening - GK **Description:** Nowadays, there are a large number of patients with type 2 diabetes in the world, and the discovery of new anti-type 2 diabetes drugs is imminent. Glucokinase (GK) is distributed in the pancreas, liver, brain, and intestine, and has the effect of regulating blood sugar balance. In this project, we will construct a prokaryotic expression plasmid of human GK, purify the GK protein, establish an in vitro human GK activity detection platform, screen for drugs with GK agonistic activity, and test them at the cellular level to enhance glucose-stimulating insulin secretion and protect pancreatic islets, to contribute to the treatment of type 2 diabetes. Key Words: GK, type 2 diabetes [Wiki](https://2022.igem.wiki/nanjing-hs)https://static.igem.org/peertube/streaming-playlists/hls/9176bd26-6cc0-4137-8743-8a5ff3ab8fef/54b8ad53-aaba-468a-900c-f65658ba9c7a-master.m3u8https://video.igem.org/videos/embed/iXPPXgRM2aMnPg3ZbdgcAp898032022-10-19T03:04:36.283ZYES2022 Team PresentationsNOhttps://video.igem.org/w/4CEyGgnvsjDwtMG2SFp34whttps://video.igem.org/lazy-static/thumbnails/bf56695c-cd44-4daf-9aba-d418360f9413.jpgWLC-Milwaukee: The Dirt Detective (2022) - Team Presentation [English]**Title:** The Dirt Detective **Description:** Wisconsin Lutheran College is located in Milwaukee, Wisconsin but is within only a few miles of abundant farmland. Agriculture is one of the biggest industries in the state and these products go all over the world. One important component in agricultural success is soil composition. It is essential to have the appropriate nutrients in the soil for crops to grow and provide a maximal return. Our team has engineered Escherichia coli to sense specific soil nutrients and provide a colorimetric readout of concentration. Our goal is to be able to measure the concentration of phosphate, nitrate, nitrite, and copper using nutrient-specific promoters controlling the expression of Beta-lactamase. While the nitrate and nitrite sensors did not work well, the phosphate and copper sensors have provided promising results. We aim to design a kit using these sensors to help farmers measure nutrients in the soil simply, affordably, and accurately. [Wiki](https://2022.igem.wiki/wlc-milwaukee)https://static.igem.org/peertube/streaming-playlists/hls/1d69f519-82a5-47df-a014-4a487e9b809c/405db189-1288-4b55-af58-5c43398854b0-master.m3u8https://video.igem.org/videos/embed/4CEyGgnvsjDwtMG2SFp34w469002022-10-19T03:07:37.380ZYES2022 Team PresentationsNOhttps://video.igem.org/w/nYKjrYQDMNhUGKJpKqgfv2https://video.igem.org/lazy-static/thumbnails/2bc79f7e-dce3-44fd-9f8f-78c61e1bb749.jpgECNUAS: Increase the level of rapamycin fermentation by knocking out the M271_14... (2022) - Team...**Title:** Increase the level of rapamycin fermentation by knocking out the M271_14685/M271_14690 gene in Streptomyces rapamycinicus **Description:** Organ transplantation faces the problem of immune rejection while giving patients a second life. Rapamycin is a new type of macrolide antibiotic, and it is also a widely used clinical drug for the treatment of immune rejection, which can greatly improve the survival rate of transplanted organs after surgery. But this medicine is low productivity and it is also expensive. Our project intends to construct an engineered strain using genetic engineering, mainly by knocking out the two-component system encoding gene M271_14685/M271_14690 in Streptomyces rapamycinicus, optimizing the metabolic regulatory network of rapamycin biosynthesis, and improving the fermentation yield of the rapamycin, which will bring greater value to clinical treatment and help patients which take organ transplantations. Key Words: Organ transplantation, Rapamycin, genetic engineering [Wiki](https://2022.igem.wiki/ecnuas)https://static.igem.org/peertube/streaming-playlists/hls/b1fc4239-58c8-4f1b-9a2f-43361d283603/d12b36c2-9e4b-43fa-8559-a880cc55574e-master.m3u8https://video.igem.org/videos/embed/nYKjrYQDMNhUGKJpKqgfv2896022022-10-19T03:13:01.882ZYES2022 Team PresentationsNOhttps://video.igem.org/w/2rAbd3KKUWxsg6wLjPPXushttps://video.igem.org/lazy-static/thumbnails/37e3c974-23ab-4158-b62c-57bf05d0cf26.jpgLZU-HS-China-A: Cell Surface Display Showing Chitosan System Produce Chitosan Ol... (2022) - Team...**Title:** Cell Surface Display Showing Chitosan System Produce Chitosan Oligosaccahride **Description:** The reason we chose this topic is that we saw many shrimp and crab shells are wasted in our dining hall and kitchen. We believe that Chitosan oligosaccharide can do something valuable. After reading some articles, we decided to investigate the topic about converting into chitosan oligosaccharide since chitosan is insoluble in water, but chitosan oligosaccharide is soluble in water, and it maintain the value that chitosan brings. Shells will be converted into chitosan oligosaccharide. Our experiment will mainly focus on the last part of the progress. We use cell surface display to make our experiment result better. The work which changes chitosan to chitosan oligosaccharide works more efficient when it takes place on the cells surface. Chitosan oligosaccharide has a lot of values which is good for either human or animals and even plants. It can antioxidant, anti-tumor, anti-bacterial, anti-fungal, make animal bones stronger and help the growth of roots. [Wiki](https://2022.igem.wiki/lzu-hs-china-a)https://static.igem.org/peertube/streaming-playlists/hls/0babcb6b-e877-4c0d-9538-7c1c52dbcab6/ff5fbe30-7f88-4309-9ad1-c693909cb372-master.m3u8https://video.igem.org/videos/embed/2rAbd3KKUWxsg6wLjPPXus1064032022-10-19T03:39:34.146ZYES2022 Team PresentationsNOhttps://video.igem.org/w/ua7iNGbdPiBNjsYMqeq4cGhttps://video.igem.org/lazy-static/thumbnails/825551bc-8c05-4174-b3eb-d5e5ff4c3644.jpgLZU-HS-China-B: Recombinant probiotics reduce alcohol-induced damage in humans (2022) - Team Pres...**Title:** Recombinant probiotics reduce alcohol-induced damage in humans **Description:** In our society, there is a group of people who work in the alcohol industry and have to drink alcohol every day because of their work. The excessive consumption of alcohol can cause damage to health, and coupled with the fact that companies do not provide them with certain safety measures, the health of these people is not guaranteed. Escherichia Nissle 1917 (EcN) has been widely demonstrated to be a safe oral probiotic. In this study, we genetically modified EcN expressing the ethanol dehydrogenase gene, acetaldehyde dehydrogenase gene, NAD synthase gene, and NADH oxidase gene. By expressing the NAD synthase and NADH oxidase genes, the efficiency of ethanol dehydrogenase and acetaldehyde dehydrogenase was increased, and thus the rate of alcohol decomposition was increased. Finally, we constructed an intestinal probiotic with high efficiency in alcohol catabolism to help alcoholic beverage workers to protect their health. [Wiki](https://2022.igem.wiki/lzu-hs-china-b)https://static.igem.org/peertube/streaming-playlists/hls/e4057696-01a3-4d58-b88d-fc392cc2c1e2/ed8b0330-af7a-4875-80db-c63a5c4e7f30-master.m3u8https://video.igem.org/videos/embed/ua7iNGbdPiBNjsYMqeq4cG898022022-10-19T03:49:23.992ZYES2022 Team PresentationsNOhttps://video.igem.org/w/23wNERgA3hSLQsJ3ux6xq2https://video.igem.org/lazy-static/thumbnails/59735a90-45fe-4df3-9485-fdeb455ff4a1.jpgBioplus-China: Recombinant spider silk gels as bio-ink for 3D printing of artifi... (2022) - Team...**Title:** Recombinant spider silk gels as bio-ink for 3D printing of artificial skin **Description:** Skin lesions caused by burns and trauma are very common in clinical practice. However, due to the limitations of such factors as large area of skin graft, long treatment period and high price, it is not enough to meet the needs of patients. In recent years, the development of 3D biological printing has provided a new idea for skin transplantation and brought dawn to patients with skin diseases and skin related industries. In the process of preparing biological ink for 3D printing, materials with good printing adaptability and cell compatibility is the biggest bottleneck at present. As recombinant spider silk protein has low immunogenicity, good cell compatibility and physical crosslinking ability, we set to construct a composite gel based on spider silk bio-ink, and evaluate its potential as a new biomaterials for 3D artificial skin or other scaffold printing or as new wound dressings. [Wiki](https://2022.igem.wiki/bioplus-china)https://static.igem.org/peertube/streaming-playlists/hls/08739c38-c680-4439-9173-9b2f03b81185/d9453d65-4562-41fe-8fa5-7bbf2cff4ca1-master.m3u8https://video.igem.org/videos/embed/23wNERgA3hSLQsJ3ux6xq2765032022-10-19T03:59:50.684ZYES2022 Team PresentationsNOhttps://video.igem.org/w/j1qVVfar7YCUH3zgv7PAFThttps://video.igem.org/lazy-static/thumbnails/cf5a1611-3939-4ae3-9d0e-dd98dd7f78df.jpgGastonDay-Shangde: Cinnamon to Sodium Benzoate: Treating Nonketotic Hyperglycinemia (2022) - Team...**Title:** Cinnamon to Sodium Benzoate: Treating Nonketotic Hyperglycinemia **Description:** Nonketotic Hyperglycinemia (NKH) causes seizures, low muscle tone, lethargy, coma, and apnea caused by the accumulation of glycine. Sodium benzoate (SB) helps regulate glycine levels by increasing elimination through the kidneys. However, SB irritates the digestive system. Compounds found in cinnamon are metabolized to SB by the liver leading some families to use cinnamon as an adjunct treatment for NKH. However, the composition of cinnamon bark is variable from area to area and between different barks, so there is no accurate dose for the medicine. We are in the process of expressing enzymes to produce cinnamic acids, cinnamoyl-CoA, and cinnamaldehyde in E. coli. We will look into producing the intermediates in the phenylalanine-to-cinnamaldehyde pathway in cell-free conditions using the cloned enzymes. Ultimately, these products can be assessed for their ability to remove glycine from body fluids and reduce the symptoms of NKH. [Wiki](https://2022.igem.wiki/gastonday-shangde)https://static.igem.org/peertube/streaming-playlists/hls/91d3dbfb-6092-425c-9522-e213b010cae9/5d7295c6-535e-4ff2-ada0-b5bbc80d2ad7-master.m3u8https://video.igem.org/videos/embed/j1qVVfar7YCUH3zgv7PAFT806032022-10-19T04:30:32.504ZYES2022 Team PresentationsNOhttps://video.igem.org/w/btspoi3M62SaJtUTfxZJAihttps://video.igem.org/lazy-static/thumbnails/5472baa9-db30-4966-97e1-5c1e46473019.jpgLZU-HS-Pro-A: Psychiatric Disorders Regulating Probiotics (2022) - Team Presentation [English]**Title:** Psychiatric Disorders Regulating Probiotics **Description:** Depression is one of the most common mental illnesses, with over 30 million patients worldwide. It causes hopelessness, or even suicidal thoughts. To help relieve depression, our team developed a probiotic to regulate depression, based on the gut-brain axis. Since it has been previously proven that 5-HTP can increase the concentration of serotine in the brain to improve mood, and GABA can block certain nerve cells to inhibit anxiety and stress, we overexpressed the TPH1 gene into E.coli Nissle 1917(EcN) to catalyze the production of tryptophan which consequently catalyzes the biopterin-dependent monooxygenation of tryptophan to 5-HTP. Meanwhile, we overexpressed the GadB gene in EcN to convert the glutamate to GABA using pyridoxal phosphate (the active form of vitamin B6) as a cofactor. To prevent genetically modified contamination, our team developed a suicide system for the strain. This probiotic has the potential to establish a more peaceful society with higher productivity. [Wiki](https://2022.igem.wiki/lzu-hs-pro-a)https://static.igem.org/peertube/streaming-playlists/hls/54d0bd6b-dbd2-4d53-b0c0-5123e0960a05/8347b6e6-c50a-4f4c-890b-d08b764edc5b-master.m3u8https://video.igem.org/videos/embed/btspoi3M62SaJtUTfxZJAi893012022-10-19T04:47:06.260ZYES2022 Team PresentationsNOhttps://video.igem.org/w/igMa8XRRprWMMbjazRquYFhttps://video.igem.org/lazy-static/thumbnails/c00eab9b-7c14-4067-b8f1-a31e9f92573b.jpgTAMU: PET-X: Living Biocatalysts for Plastic Degradation (2022) - Team Presentation [English]**Title:** PET-X: Living Biocatalysts for Plastic Degradation **Description:** Our team is tackling the critical challenge of plastic pollution, specifically from polyethylene terephthalate (PET) materials. The bacterial enzymes PETase and MHETase work synergistically to degrade PET into the environmentally benign monomers terephthalic acid and ethylene glycol. Although there has been much effort toward highly efficient plastic degradation, a systematic approach using protein engineering and strain engineering to improve plastic degradation is still required to achieve practical applications. Our first completed goal was the surface display of PETase and MHETase enzymes in E. coli using transporter proteins for the creation of whole-cell biocatalysts, eliminating the need for costly and time intensive enzyme purification. Secondly, to evaluate changes in effectiveness we developed qualitative and quantitative high-throughput kinetic assays. Finally, we used small trials of DNA mutagenesis to create and evaluate modified enzymes as a proof of concept for improving enzyme functions including PETase in future works. [Wiki](https://2022.igem.wiki/tamu)https://static.igem.org/peertube/streaming-playlists/hls/8bdf57d4-e6b6-461e-b1f6-e6581d04ff77/431f2d6f-8ced-466a-96a8-b46297cddeb0-master.m3u8https://video.igem.org/videos/embed/igMa8XRRprWMMbjazRquYF897062022-10-19T04:53:18.056ZYES2022 Team PresentationsNOhttps://video.igem.org/w/jehxGWNM84wgaCQj9TQnozhttps://video.igem.org/lazy-static/thumbnails/ebca9ce2-1637-4f01-bbc1-3fe7288b7902.jpgDeNovoCastrians: Investigating Microbial BTEX Degradation (2022) - Team Presentation [English]**Title:** Investigating Microbial BTEX Degradation **Description:** Environmental contamination from aromatic hydrocarbons such as Benzene, Toluene, Ethylbenzene, and Xylene (BTEX) is of particular concern in the Newcastle region. Our team aims to investigate microbial BTEX degradation pathways to work towards bioremediation of BTEX contamination. We will do this by cloning characterised gene clusters from environmental isolates of Rhodococcus and Acinetobacter baylii into Escherichia coli and exploring new combinations of the genes in these clusters to better understand them and the function of their enzymes. Work will be undertaken to characterise a transporter often found with these BTEX degradation clusters. From this we aim to create a synthetic optimised BTEX degradation cluster. Additionally, novel and characterised BTEX degradation pathways in Rhodococcus will be studied alongside broad cellular responses to the presence of monoaromatic hydrocarbons. Lastly, we will design and test a fluorescent biosensor that can confirm the presence of BTEX or their metabolite, catechol, in real time. [Wiki](https://2022.igem.wiki/denovocastrians)https://static.igem.org/peertube/streaming-playlists/hls/939f5cb4-6872-4eb4-80e4-d2653a65da41/66c61645-89ab-4e11-8dbf-7be7c03504b8-master.m3u8https://video.igem.org/videos/embed/jehxGWNM84wgaCQj9TQnoz776022022-10-19T04:57:57.116ZYES2022 Team PresentationsNOhttps://video.igem.org/w/ivk9Uks4SFgSRLLY2x8NdJhttps://video.igem.org/lazy-static/thumbnails/dfc6bb74-2a1c-470b-b6eb-5922f0c42b86.jpgMissouri_Miners: Disparlure Production in S. Cerivasiae for Spongy Moth Populati... (2022) - Team...**Title:** Disparlure Production in S. Cerivasiae for Spongy Moth Population Control using M.O.T.H.Y. **Description:** Lymantria dispar dispar, commonly known as spongy moths, is a species of moth of Eurasian descent. They are an invasive species in the United States, harming forests and local farms in the midwest and mostly the northeast by defoliating the trees they inhabit. S. cerevisiae, or brewer s yeast, were genetically modified to produce the spongy moth pheromone Disparlure, cis-7,8-Epoxy-2-methyloctadecane, through a reductase and desaturase found in the spongy moth genome. A yeast strain that produces this pheromone could be used as a component of an improved spongy moth trap, which we call M.O.T.H.Y (Moth outsmarting through helpful yeast). This could benefit the conservation of local forests and farms, and the general research methodology could be applied to more pheromone-producing invasive species across the globe. [Wiki](https://2022.igem.wiki/missouri-miners)https://static.igem.org/peertube/streaming-playlists/hls/8dc3baf5-5ddf-4e3c-bebe-2f5b0b48e302/0ca28541-c52d-47c7-8583-23b76353c328-master.m3u8https://video.igem.org/videos/embed/ivk9Uks4SFgSRLLY2x8NdJ476012022-10-19T05:01:26.991ZYES2022 Team PresentationsNOhttps://video.igem.org/w/r36GD8MzPPByGPhpYP1vZmhttps://video.igem.org/lazy-static/thumbnails/e14887dd-03c9-4d7e-a8b5-0de55f2281a0.jpgNanjing-China: Silvanela - A synthetic biohybrid system of Shewanella and silver... (2022) - Team...**Title:** Silvanela - A synthetic biohybrid system of Shewanella and silver nanoparticles **Description:** An important issue in the climate crisis is global warming caused by massive emissions of greenhouse gases. We noted that microbial fuel cells (MFCs) are a new type of renewable energy that converts the chemical energy of organic matter into electrical energy. It can turn waste organic matter into clean energy, reducing greenhouse gas emissions. But the main problem at present is the unsatisfactory power generation efficiency. Therefore, we designed a silver-binding protein and introduced it into Shewanella. Engineered bacteria can synthesize and enrich silver nanoparticles. Silver nanoparticles can promote electron transfer and bacterial aggregation, effectively improving power generation. [Wiki](https://2022.igem.wiki/nanjing-china)https://static.igem.org/peertube/streaming-playlists/hls/cabf779b-8b48-425e-b763-b9d5d00ac9c2/5ef67a66-e1b0-4710-a5e6-8b954c3cf0d2-master.m3u8https://video.igem.org/videos/embed/r36GD8MzPPByGPhpYP1vZm8970122022-10-19T05:21:34.414ZYES2022 Team PresentationsNOhttps://video.igem.org/w/uh9seyTtwdNpgiugoN3LnYhttps://video.igem.org/lazy-static/thumbnails/48553b46-4e1a-4856-b999-ed22ee898fee.jpgWorldshaper-HZBIOX: Boost Colorectal Cancer Treatment: Arginine Probiotics (2022) - Team Presenta...**Title:** Boost Colorectal Cancer Treatment: Arginine Probiotics **Description:** Colon cancer is a relatively common digestive tract malignant tumor with a high mortality rate and is one of the three major cancers in the world. The main idea of our project is to use the non-pathogenic bacteria E. Coli Nissle 1917 to produce L-arginine to boost colorectal cancer immunotherapy. To overcome the arginine inhibition mechanism, the ArgR gene was knocked out and the ArgJ gene was inserted. To ensure biosafety, we inserted the Lysin gene into our engineered EcN so that it would be lysed after the bacteria had done their work. The engineering bacterium EcN in the project is designed to use the metabolite ammonia of cancer cells as a substrate to continuously produce a large amount of L-arginine in tumors. Long-term stay in the tissue has great potential for the treatment of digestive system tumors. [Wiki](https://2022.igem.wiki/worldshaper-hzbiox)https://static.igem.org/peertube/streaming-playlists/hls/e500fde1-5e80-480e-9778-fe200f5556da/213bc8cc-f298-426c-88b6-487923dd2c46-master.m3u8https://video.igem.org/videos/embed/uh9seyTtwdNpgiugoN3LnY894022022-10-19T05:32:31.131ZYES2022 Team PresentationsNOhttps://video.igem.org/w/516asvFWEF5ak91UveWwJBhttps://video.igem.org/lazy-static/thumbnails/be4dea2b-56dd-468e-9168-315de6c0e7bc.jpgWVHS_SanDiego: The De-Fluorinator (2022) - Team Presentation [English]**Title:** The De-Fluorinator **Description:** No abstract [Wiki](https://2022.igem.wiki/wvhs-sandiego)https://static.igem.org/peertube/streaming-playlists/hls/2067bc8a-4313-423b-bcb5-5bb0533ca43f/28a5f0ee-deb2-4c9c-87ea-909020e377e9-master.m3u8https://video.igem.org/videos/embed/516asvFWEF5ak91UveWwJB904012022-10-19T05:42:42.365ZYES2022 Team PresentationsNOhttps://video.igem.org/w/gkTE7yNc6f9ZYFQgC7Nmvahttps://video.igem.org/lazy-static/thumbnails/5823beea-7c0a-4e1e-9f2a-65b9577d8cbf.jpgLZU-HS-China-C: The Degradation of Sulfadiazine Using Whole-cell Biocatalysts (2022) - Team Prese...**Title:** The Degradation of Sulfadiazine Using Whole-cell Biocatalysts **Description:** The excessive use and unregulated environmental discharge of antibiotics in poultry businesses have been a major causality behind superbugs. Our project focused on the degradation of sulfadiazine (SDZ), the most popular antibiotic used in the industry. We designed a whole cell biocatalyst that seeks to degrade SDZ through surface display technique of Lac 6, an enzyme binding to SDZ. By doing so, we wish to provide an alternative method of degrading sulfadiazine that better appeals to farmers. [Wiki](https://2022.igem.wiki/lzu-hs-china-c)https://static.igem.org/peertube/streaming-playlists/hls/7c400bde-7d52-4871-be19-ec9fc4ce8a3b/2b6c8f6e-0f7b-40b3-ac9a-3ebd215b6293-master.m3u8https://video.igem.org/videos/embed/gkTE7yNc6f9ZYFQgC7Nmva901052022-10-19T06:04:38.461ZYES2022 Team PresentationsNOhttps://video.igem.org/w/9TWbgByYn2cWn4rGjXFLAthttps://video.igem.org/lazy-static/thumbnails/b7be3771-4715-4450-bbcd-06fe79c332b0.jpgHarvard: CARPE: Computationally-Aided Rapid Protein Engineering (2022) - Team Presentation [English]**Title:** CARPE: Computationally-Aided Rapid Protein Engineering **Description:** Directed evolution has become the forefront method of generating novel protein-peptide activity in protein engineering. However, current directed evolution protocols rely on random mutagenesis, consuming disproportionate amounts of time and resources. CARPE, computationally-aided rapid protein engineering, is a faster and more resource-efficient alternative to directed evolution. Using computationally proposed mutations to the active site of the Ste2 GPCR in Saccharomyces cerevisiae, we engineered Ste2 to recognize the kidney disease biomarker Cystatin-C instead of its native ligand. Evolutionary relationships were explored through pairwise alignments to identify binding residues with high Shannon entropy in Ste2. These target residues were computationally mutated to evolutionarily related amino acids to determine sets of mutations that optimized binding energy to Cystatin-C. To validate results, computationally-favorable mutations were induced in Saccharomyces cerevisiae upstream of mVenus to assess binding affinity between CARPE-mutated Ste2 and Cystatin-C. [Wiki](https://2022.igem.wiki/harvard)https://static.igem.org/peertube/streaming-playlists/hls/48096de9-a4f7-41a7-b263-9b37f3815f47/2ba96af0-1acf-45a4-a6b9-60d6adfd59e6-master.m3u8https://video.igem.org/videos/embed/9TWbgByYn2cWn4rGjXFLAt887052022-10-19T06:09:43.474ZYES2022 Team PresentationsNOhttps://video.igem.org/w/bHN7HddAwkD3PqWQCKXBZuhttps://video.igem.org/lazy-static/thumbnails/e318f98c-ba2b-4e3c-bb9e-23181eb80313.jpgBUCT-China: Cultured Meat (2022) - Team Presentation [English]**Title:** Cultured Meat **Description:** Based on the environmental pollution of traditional animal husbandry, over-exploitation, and excessive transmission of viruses in the process of unregulated breeding leads to avian influenza and such public health events. Our project intends to research cultured meat, to provide a new technology for the development of food safety, food hygiene, and standardized food production. Therefore, our design includes producing scaffold materials and cultivating muscle cells. Firstly, to reduce the influence of metabolic disturbance, E.coli with the autonomous dynamic regulation function was constructed to produce PHFA and provide raw materials for the scaffold system. Besides, to meet up with the challenge of the high-cost 3D-print scaffold can't be industrialized, the method of cell culture by microspheres is proposed, which greatly promotes the process of industrial large-scale production. As a result, our project will improve the human nutritional diet, reduces global carbon emissions, and also be a firm source of intergalactic colonialization. [Wiki](https://2022.igem.wiki/buct-china)https://static.igem.org/peertube/streaming-playlists/hls/56d14d0c-f611-45fa-94c5-0936a35654ba/c1d5f456-9900-4f9c-a6e8-842b826d9014-master.m3u8https://video.igem.org/videos/embed/bHN7HddAwkD3PqWQCKXBZu854012022-10-19T06:19:38.687ZYES2022 Team PresentationsNOhttps://video.igem.org/w/wN3WQixpT9WeVDuT2LHeahhttps://video.igem.org/lazy-static/thumbnails/be6e7e28-c405-40c6-820a-558b461bfdf7.jpgLZU-CHINA: Targeted Treatment of Colorectal Cancer with Gene-Editing Probiotics (2022) - Team Pre...**Title:** Targeted Treatment of Colorectal Cancer with Gene-Editing Probiotics **Description:** Colorectal cancer (CRC) is one of the most common malignancies, according to the WHO GLOBOCAN database. Current treatments for colorectal cancer include chemotherapy, radiation therapy, immunotherapy etc. However, the biggest challenge of these therapies is the indiscriminate killing of normal cells. The environment in which tumor cells live is usually characterized by high lactate concentration, low pH and hypoxia. LZU-CHINA takes advantage of this characteristic by introducing three promoters into the probiotic, equipping the strain with an automated tumor targeting system. In order to make the system stable and enhance the specificity of the engineered microbe to kill tumor cells, we also added other genetic components including amplifying genetic logic gate, adhesion factor, killing factor and lysis factor. 2022 LZU-CHINA is dedicated to provide new approaches and ideas for cancer therapy by synthetic biology through gene circuit optimization and construction. [Wiki](https://2022.igem.wiki/lzu-china)https://static.igem.org/peertube/streaming-playlists/hls/f9603039-d8bc-428a-b278-1d1f65d9e176/4128b404-d9a7-4cb9-a5fe-77577cdc9bf8-master.m3u8https://video.igem.org/videos/embed/wN3WQixpT9WeVDuT2LHeah896042022-10-19T06:42:09.368ZYES2022 Team PresentationsNOhttps://video.igem.org/w/6k1gJ2NSprY9hKk2HQQ56Yhttps://video.igem.org/lazy-static/thumbnails/0eb7a0da-8506-4763-b682-712bd40dd032.jpgGDSYZX: Application of photoinducible promoter in the biosynthesis of patchoulol... (2022) - Team...**Title:** Application of photoinducible promoter in the biosynthesis of patchoulol in yeast **Description:** Patchoulol is one of the main active components of Pogostemon cablin, which is often used to defend against phytopathogenic microbes and combat human diseases. Patchoulol can be obtained by natural extraction, chemical synthesis, and synthetic biology engineering. However, the natural extraction is often low-efficiency, and the chemical synthesis is often costly and inefficient, and may not yield enantiomerically pure patchoulol. We engineered high level patchoulol production in yeast by overexpression of farnesyl diphosphate synthase(FPS, ERG20) and patchoulol synthase (PTS) either driven by strong promoter or light-induced promoter HIGH CHLOROPHYLL FLUORESCENCE173 (HCF173). The strategy increased the synthesis of patchoulol, which may also provide the foundations to generat higher levels of other terpenes for research, industrial production or therapeutic applications. [Wiki](https://2022.igem.wiki/gdsyzx)https://static.igem.org/peertube/streaming-playlists/hls/2b24fdf4-675c-42a7-8185-a7057746efca/7edd2e97-6381-45a8-9562-7c0e762d5165-master.m3u8https://video.igem.org/videos/embed/6k1gJ2NSprY9hKk2HQQ56Y876022022-10-19T07:09:18.063ZYES2022 Team PresentationsNOhttps://video.igem.org/w/83xjJtjZtVEEuzQduCNcUMhttps://video.igem.org/lazy-static/thumbnails/451bcafd-10c4-4354-bce7-931337134fc4.jpgUIUC_Illinois: Curli Capture: Engineering bacterial biofilms to reduce nitrate p... (2022) - Team...**Title:** Curli Capture: Engineering bacterial biofilms to reduce nitrate pollution. **Description:** Nitrate runoff, or the loss of nitrate nitrogen from agricultural systems, can lead to issues such as unsafe drinking water and overgrowth of plant life. To combat this issue, we have designed a nitrate-capture system utilizing curli proteins, which are self-assembling amyloid fibers secreted by E. coli that will form a mesh-like structure upon secretion. Our goal is to fuse the nitrate-capturing protein native to cyanobacteria, nrtA, to the curli monomeric unit, csgA. This fusion will be done with the SpyTag/SpyCatcher system, a two-part system that, upon contact, spontaneously forms an isopeptide bond. We are planning our capture system to be a cell-free mesh that can be encapsulated and placed near waterways in agricultural communities. However, we eventually want to modify our construct into a cellular system under the control of an inducible promoter that produces nitrate-capturing curli only in the presence of nitrate. [Wiki](https://2022.igem.wiki/uiuc-illinois)https://static.igem.org/peertube/streaming-playlists/hls/390ac2f9-ed08-4ff2-a80f-9b5717aa5771/67fbd2e7-252b-40b5-9c2d-db15dd02d594-master.m3u8https://video.igem.org/videos/embed/83xjJtjZtVEEuzQduCNcUM897002022-10-19T07:24:34.130ZYES2022 Team PresentationsNOhttps://video.igem.org/w/scsSEcLwRkmCSLkkGVtCmshttps://video.igem.org/lazy-static/thumbnails/edbf5fd7-735f-4aa3-9ef3-c1f93c71af4b.jpgNJXDF-CHN: Bring us closer by fragrance -- Refactoring Yarrowia lipolytica to hi... (2022) - Team...**Title:** Bring us closer by fragrance -- Refactoring Yarrowia lipolytica to high produce 2-phenylethanol **Description:** 2-phenylethanol (2-PE) is a fatty alcohol with the aroma of rose, which is considered as an essential flavoring ingredient in the food and cosmetic industry because of its mild and elegant smell. In nature, 2-PE is mainly extracted from rose, jasmine, tomato, and buckwheat plants. However, the concentration of 2-PE in plants is deficient and susceptible to natural factors, such as weather and plant diseases, resulting in the cost of extracting 2-PE up to 3500-6000 USD/kg. Cheap 2-PE can be prepared by chemical synthesis, but the process of producing benzene ethanol by chemical synthesis is complicated. Therefore, we constructed an engineered strain utilizing synthetic biology, so that it can synthesize natural, green, and sustainable 2-PE to meet the needs of the food and cosmetics industry. We hope our obtained 2-pE can be developed to trend-leading and unique 2-PE products according to different people and scenarios. [Wiki](https://2022.igem.wiki/njxdf-chn)https://static.igem.org/peertube/streaming-playlists/hls/d4275914-5598-4ca4-a317-59632c4ff37a/b9f68c6c-4175-44a7-8576-f55f48a1aab7-master.m3u8https://video.igem.org/videos/embed/scsSEcLwRkmCSLkkGVtCms897042022-10-19T07:46:57.802ZYES2022 Team PresentationsNOhttps://video.igem.org/w/8ZvA3NyQ99TUEwgU4fbcJ2https://video.igem.org/lazy-static/thumbnails/8bce933f-1960-4664-a5dc-662a32bf80b6.jpgThinker-Shenzhen: ChDe (2022) - Team Presentation [English]**Title:** ChDe **Description:** Dermatomycosis is a skin disease caused by fungi, which is common and diverse in humans and pets. If not treated in time, it may trigger serious consequences. According to a survey, one billion people worldwide are suffering from fungal skin diseases today. Therefore, finding an innovative and efficient way to treat fungal skin diseases is urgent. To kill the fungi on the skin, we intend to degrade the chitin in the fungal cell wall by using chitinase to destroy its structure. However, most common chitinases on the market have only one degradation domain and thus have a weak binding ability. In this case, they cannot work efficiently. To solve this problem, our team used synthetic biology to bind chitinase binding domains extracted from two bacteria to the N and C ends of our chitinase, respectively, to obtain modified chitinase with strong binding ability. [Wiki](https://2022.igem.wiki/thinker-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/40b79963-4909-4e4f-abcf-8a9937f5fbe1/adff85b3-ebc6-467e-b0bb-3509bc791004-master.m3u8https://video.igem.org/videos/embed/8ZvA3NyQ99TUEwgU4fbcJ2849032022-10-19T07:49:52.161ZYES2022 Team PresentationsNOhttps://video.igem.org/w/2sL2iesnXA9361XoBsEtRghttps://video.igem.org/lazy-static/thumbnails/86b193ae-a517-4477-81db-ff0c14a4de9e.jpgWHU-China: Reach for Light (2022) - Team Presentation [English]**Title:** Reach for Light **Description:** Depression, a common but serious mental disorder, is characterized by constitutive sorrow, loss of interest, guilt and more. Traditionally, patients suffering from depression are treated with different kinds of antidepressants, which may cause side effects and economic and/or mental burden. So our team aims to engineer the probiotic Bifidobacterium longum, which has been demonstrated to reduce depression, to periodically generate a natural metabolite and antidepressant S-adenosylmethionine (SAMe) in the gut. To enhance the antidepressant effect of Bifidobacterium longum, Sam2 and Pet8p, the synthetase and transporter of SAMe, respectively, were overexpressed. To mimic drug uptake behavior and regulate plasma concentration, the expression of Sam2 was controlled by an oscillator which is periodically activated. Meanwhile, to ensure safety, a temperature-sensitive redundant kill switch kills the engineered probiotic when it exits human digestive tract, and an AHL-induced kill switch allows the bacteria to be eliminated by AHL ingestion when no longer needed. [Wiki](https://2022.igem.wiki/whu-china)https://static.igem.org/peertube/streaming-playlists/hls/0bd59b3e-b5fe-47ce-bef6-d81fad740d65/78defcfa-5cf2-48a6-8b92-9d460932ff64-master.m3u8https://video.igem.org/videos/embed/2sL2iesnXA9361XoBsEtRg755012022-10-19T07:55:28.807ZYES2022 Team PresentationsNOhttps://video.igem.org/w/vjkB7NBx9nsLkot1W7HoJbhttps://video.igem.org/lazy-static/thumbnails/7c991295-7384-4a8b-abd2-656181647f9a.jpgSHSBNU_China: SynFlora7 (2022) - Team Presentation [English]**Title:** SynFlora7 **Description:** Eye protection problems have become the one of biggest worries for Chinese teenagers. Reactive oxygen species (ROS) are assumed to damage eye cell proteins. Sunlight and electronic screens emit blue light, that is assumed to penetrate the human lens to the eye macular area and lead to oxidative damage. Anthocyanins are natural pigments widely found in plants, mostly flowers. They are reported as healthcare products to assist many physiological functions, including eye protection and anti-oxidative effects. This year, SHSBNU-China aims to construct an intact metabolic pathway in E.coli, to give them the ability to produce anthocyanins. The whole pathway to producing anthocyanins contains seven enzymes. We used molecular biology and synthetic biology methods to express enzymes in E.coli and verified the production of anthocyanin. We attempted to characterize the enzyme production quality under different experiment conditions to optimize the yield and proposed products using anthocyanins to protect students' eyes. [Wiki](https://2022.igem.wiki/shsbnu-china)https://static.igem.org/peertube/streaming-playlists/hls/ed687dc5-dbe2-4dab-9561-7674d4e848ae/edf56d32-70ae-4a3c-b333-c6ddfe3c9ed8-master.m3u8https://video.igem.org/videos/embed/vjkB7NBx9nsLkot1W7HoJb802012022-10-19T08:29:26.220ZYES2022 Team PresentationsNOhttps://video.igem.org/w/wRzFGjPzo5mf6NzPgUcQAYhttps://video.igem.org/lazy-static/thumbnails/f5e6e84a-5e13-4d5d-b82b-320503d8c9b3.jpgGYHS: Separation and Multiplex Colorimetric Detection of Foodborne Pathogens Bas... (2022) - Team...**Title:** Separation and Multiplex Colorimetric Detection of Foodborne Pathogens Based on Phage Receptor Binding Protein **Description:** Global food safety problems emerge one after another, and people's requirements for quality of life are constantly improving. At this time, it is very important to put forward a method that can quickly and directly detect pathogenic bacteria. We hope that this project can strengthen people's attention to food safety and reduce the tragedies caused by food safety. We used phage binding protein-nanomagnetic bead complexes combined with a paper-based sensor to isolate and colorimetrically detect a variety of foodborne pathogenic bacteria in food. We hope our device could help to detect foodborne pathogens at home for people so that we eat healthier and safer. [Wiki](https://2022.igem.wiki/gyhs)https://static.igem.org/peertube/streaming-playlists/hls/f9de5cff-dec1-46d4-a89f-5598a8c0b244/40690aef-eba1-4611-ac0e-bcd3a9f31086-master.m3u8https://video.igem.org/videos/embed/wRzFGjPzo5mf6NzPgUcQAY815052022-10-19T08:45:54.644ZYES2022 Team PresentationsNOhttps://video.igem.org/w/cL9NoawANfv2r86UcHsJ62https://video.igem.org/lazy-static/thumbnails/ee20baf1-c015-4f7c-9213-2d199250317a.jpgShanghai_United: Mixed Feed Additives (2022) - Team Presentation [English]**Title:** Mixed Feed Additives **Description:** Pasture feed mainly includes silage and grain feed. Silage contains a large amount of lignocellulose, which is difficult to digest and absorb, while grain feed is composed of a large amount of hemicellulose xylan, which is not easily absorbed by animals. This project plans to adopt the multi-enzyme synergistic degradation strategy to construct engineering bacteria that can hydrolyze lignocellulose and hemicellulose xylan at the same time. Firstly, the recombinant plasmids of cellulase PKC and xylanase xynA were constructed and transformed into P. pastoris and the positive transformants were screened to obtain the recombinant bacteria group with high enzyme production, and the enzyme activity and extracellular protein secretion were measured. This project can improve the utilization rate of silage and grain mixed feed and the applicable breeds of livestock, and improve the economic value of mixed feed. Key Words: Mixed Feed, PKC, xynA [Wiki](https://2022.igem.wiki/shanghai-united)https://static.igem.org/peertube/streaming-playlists/hls/5f3eac94-9fb8-4cb5-b0af-afb78bd14d0b/5e18e468-f1be-43b2-bc95-2dd773b3ce55-master.m3u8https://video.igem.org/videos/embed/cL9NoawANfv2r86UcHsJ62855012022-10-19T09:25:56.606ZYES2022 Team PresentationsNOhttps://video.igem.org/w/vo8swna3pCKGoxNEx9A44Yhttps://video.igem.org/lazy-static/thumbnails/2ec5edf8-dd07-48f9-8f67-ba02fe972a84.jpgHK_SSC: A biosynthetic production pathway of valerolactam using the cyanobacteri... (2022) - Team...**Title:** A biosynthetic production pathway of valerolactam using the cyanobacteria strain Synechococcus elongatus UTEX 2973. **Description:** The chemical commodity valerolactam is among a family of amides called lactams that are traditionally produced through petrochemical methods, which require intense energy and toxic environments. One of the end-products of valerolactam is nylon, which is heavily demanded every year. Taking note of the impact the petrochemical production methods of valerolactam has on the environment, we explore the biosynthesis of valerolactam as a green alternative. Switching to a biosynthetic production method of valerolactam allows an overall more sustainable manufacturing of its end-products. Molecular dynamic simulations are also carried out to improve the efficiency of existing enzymes. The precursor molecule to valerolactam, 5AVA, is synthesized by the cyanobacteria strain Synechococcus elongatus UTEX 2973 using carbon dioxide as the carbon source. The cyclization enzyme 5YSS then cyclizes 5AVA to valerolactam, and the protein NitR embedded on magnetic beads captures valerolactam molecules. The NitR-valerolactam complex is then isolated by applying a magnetic field. [Wiki](https://2022.igem.wiki/hk-ssc)https://static.igem.org/peertube/streaming-playlists/hls/edeffad4-8834-4108-83c9-beaa2bfb8c02/f5ea73e3-e8c7-4337-a4e1-ebc4c673f988-master.m3u8https://video.igem.org/videos/embed/vo8swna3pCKGoxNEx9A44Y673022022-10-19T09:27:51.703ZYES2022 Team PresentationsNOhttps://video.igem.org/w/c6uArBqjbEuL7vwFGsXo8ahttps://video.igem.org/lazy-static/thumbnails/eed36ce5-9066-4fec-ac82-524377ef1f9b.jpgNanjing_NFLS: Microcystin Terminator (2022) - Team Presentation [English]**Title:** Microcystin Terminator **Description:** Microcystins are secondary metabolites of cyanobacteria. They contaminate water resources during harmful algal blooms, posing severe threat to both ecological stability health. Upon drinking intake, the group 2B carcinogen causes liver failure and non-alcoholic liver cancer. We utilized microcystin degradation gene mlrA from natural bacteria Sphingopyxis sp.m6, and connected it with cross-membrane ice nucleation protein to construct an extracellular enzyme display system. Significant expression of MlrA was found on the surface of recombinant E. coli, whose biodegradation capability was verified. Our system demonstrated compatibility with the surrounding environment and an advantage over traditional physical or chemical methods that lead to secondary pollution. [Wiki](https://2022.igem.wiki/nanjing-nfls)https://static.igem.org/peertube/streaming-playlists/hls/59d8dd9d-0c09-44b8-abd8-010d82106daf/cfdbaf13-11a6-4b74-acc0-2407d6ba6550-master.m3u8https://video.igem.org/videos/embed/c6uArBqjbEuL7vwFGsXo8a8920122022-10-19T09:36:44.062ZYES2022 Team PresentationsNOhttps://video.igem.org/w/aiL7m9vpf7f1KnDbVsDMFghttps://video.igem.org/lazy-static/thumbnails/50d911ef-5126-4215-865f-8cdc346b00f4.jpgUppsala: PETerminator: Enzymatic upcycling of polyethylenterephthalate (PET) int... (2022) - Team...**Title:** PETerminator: Enzymatic upcycling of polyethylenterephthalate (PET) into higher value chemicals **Description:** Plastic is a very useful material. However, plastic pollution has world-wide effects on our environment. At the same time, only 9% of all plastic ever made has been recycled. We need to develop better techniques for recycling and upcycling plastic in order to reverse the effects that plastic pollution has caused our environment. Therefore we decided to focus on degradation of polyethylene terephthalate (PET) plastics since it is one of the most abundant types of plastic, has the largest number of characterized enzymes (40) that can act on it, and its degradation is arguably the best studied of all the synthetic polymers. Our overarching goal was to build upon previous work surrounding plastic degradation, membrane transport and bacterial upcycling to develop an E. coli strain whole cell catalyst system with a fully integrated metabolic pathway that could degrade PET plastics and further turn them into the chemical protocatechuic acid (PCA). [Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/4b5d134f-cce0-4b9d-97ba-abc8eacf93c1/2c623db1-b1fc-4282-9262-b131ed8f8246-master.m3u8https://video.igem.org/videos/embed/aiL7m9vpf7f1KnDbVsDMFg882032022-10-19T09:43:11.561ZYES2022 Team PresentationsNOhttps://video.igem.org/w/wgSrkJ3uGY7ME3Go9NeUWYhttps://video.igem.org/lazy-static/thumbnails/75bece67-37f1-4537-bd62-a123f5f85a0b.jpgCUHK-HongKong-SBS: Antigen-based Tumour REcognising Universal System (ATREUS) (2022) - Team Prese...**Title:** Antigen-based Tumour REcognising Universal System (ATREUS) **Description:** Antigen-based Tumor REcognizing Universal System (ATREUS) is a combination of chimeric antigen receptor T cell (CAR T) therapy and gene therapy, with to vision to overcome the existing limitations of CAR T therapy in solid tumors, whilst enhancing the safety and efficiency of cancer therapies. It utilizes recombinant AAV vector to deliver a novel antigen to tumor cells as a tag, then CAR-T cells targeting the novel antigen would be engineered, which enhances the specificity of CAR target to solid tumour cells. The expression of transgene is expected to be confined to tumor cells by incorporation of tumor-specific promoters, while the addition of two miRNAs would improve CAR-T infiltration and antigen expression. It is hoped that the system would develop into a precision medicine for patients of different tumor types, as the components of the system are customizable depending on the tumour microenvironment of every patient. [Wiki](https://2022.igem.wiki/cuhk-hongkong-sbs)https://static.igem.org/peertube/streaming-playlists/hls/f5296631-7a27-4fcd-9f14-926e303ec12c/c3f960dc-2c04-413f-a694-d93d6245dd80-master.m3u8https://video.igem.org/videos/embed/wgSrkJ3uGY7ME3Go9NeUWY901002022-10-19T09:48:40.523ZYES2022 Team PresentationsNOhttps://video.igem.org/w/22Hf36VB9FzVRYGqBVBmSXhttps://video.igem.org/lazy-static/thumbnails/66aa256a-1d16-428e-87cd-950e04c36b3c.jpgSJTU-software: DL-ecGEM Reconstruction of Actinomycetes (2022) - Team Presentation [English]**Title:** DL-ecGEM Reconstruction of Actinomycetes **Description:** Actinomyces can produce -glucosidase inhibitors and the anti-diabetic drug acarbose. To improve the production of acarbose, our project intends to develop a generalized modeling software, by adding constraints to the genome-wide metabolic model of actinomycetes and combining deep learning to predict model parameters, it provides a feasible solution for the reconstruction of Deep Learning-based Enzyme-Constrained Genome-scale Metabolic model (DL-ecGEM) for actinomycetes. The model can also be used for simulation experiments. Through that, some hotspot identification tools can be used to find directional transformation plans for cells. Combined with the transformation recommendations given by the software, the deep learning network will be updated and can re-predict the parameters in the model. Thus, the phenotypic changes in acarbose production can be observed through simulation. At the same time, the model parameters can be optimized based on experimental data to make the model more accurate. [Wiki](https://2022.igem.wiki/sjtu-software)https://static.igem.org/peertube/streaming-playlists/hls/08564c78-cab6-44b9-9889-2b7ad8a00703/cf345d7b-e158-4fd2-a82a-92962a7f31df-master.m3u8https://video.igem.org/videos/embed/22Hf36VB9FzVRYGqBVBmSX1028032022-10-19T09:59:32.670ZYES2022 Team PresentationsNOhttps://video.igem.org/w/mdk1hZBeVkKRL132P7Fhj7https://video.igem.org/lazy-static/thumbnails/1fc85b24-7bd5-4327-99e6-0ec43b30d0a2.jpgBNU-China: Cannabis 'Vaccine' (2022) - Team Presentation [English]**Title:** Cannabis 'Vaccine' **Description:** In 2020, the United nations officially recognized the medical use of cannabis. However, the booming usage of cannabis led by legalization has created an extraordinary high risk of drug leakage. And the main psychoactive compound found in the cannabis plant is 9-tetrahydrocannabinol, THC for short. Our project is aimed at preventing cannabis addiction by colonizing intestinal flora to degrade THC and is expected to be used by narcotics agent, people reluctant to consume cannabis, medical user and so on. Therefore, we engineered the E.coli Nissle1917 to secrete our enzymes which can transfer THC into cannabinoid glucuronic acid, and reporter protein only when it senses THC in the intestinal tract. Overall, we sincerely wish to provide a secure system for future cannabis exploration. [Wiki](https://2022.igem.wiki/bnu-china)https://static.igem.org/peertube/streaming-playlists/hls/a3af6924-dfe6-4381-982d-ff003edc7872/6fa32639-1b8a-4690-bca8-8e84da6e4ed8-master.m3u8https://video.igem.org/videos/embed/mdk1hZBeVkKRL132P7Fhj7897012022-10-19T10:15:01.380ZYES2022 Team PresentationsNOhttps://video.igem.org/w/6mzKcPj5Rt92gdgaHmnrVLhttps://video.igem.org/lazy-static/thumbnails/72d445e9-601d-41fd-9c0f-6cf05589ba90.jpgNPU-CHINA: Ligninolytic enzymes: a PAHs killer (2022) - Team Presentation [English]**Title:** Ligninolytic enzymes: a PAHs killer **Description:** Polycyclic aromatic hydrocarbons (PAHs) are a class of semi-volatile organic compound that is abundant in the environment. Ligninolytic enzymes such as laccases and lignin peroxidases are potential biological pathways for bioremediation of PAHs. However, there are few studies on the heterologous expression of ligninolytic enzymes in Escherichia coli to degrade PAHs. The present study investigated the oxidation of PAHs using laccase CotA from Bacillus subtilis and lignin peroxidase LipH8 from Phanerochaete chrysosporium. It was observed that recombinant CotA and LipH8 had significant oxidation effects on PAHs. Moreover, combined ligninolytic enzymes are a better candidate for the remediation of PAHs than a single ligninolytic enzyme. An arabinose-regulated suicide switch was built to induce suicide once the engineered bacteria were released from the environment for biosafety. Our work will allow the design of biocatalysts for ligninolytic enzyme engineering and provide new insight into the remediation of PAHs by combined ligninolytic enzymes. [Wiki](https://2022.igem.wiki/npu-china)https://static.igem.org/peertube/streaming-playlists/hls/2b5d5d5e-d66c-4dbc-8974-59af14d7319a/3bbcd576-db0e-4e81-bca6-405cbffd8ca9-master.m3u8https://video.igem.org/videos/embed/6mzKcPj5Rt92gdgaHmnrVL1169012022-10-19T10:21:38.677ZYES2022 Team PresentationsNOhttps://video.igem.org/w/vf4EhpWhHRqmQtyz4PvUVYhttps://video.igem.org/lazy-static/thumbnails/a3728773-c898-407c-8de3-78de65f9684f.jpgShanghai_Metropolis: Fruit wine brewing Plus (2022) - Team Presentation [English]**Title:** Fruit wine brewing Plus **Description:** The high content of higher alcohol in beverages can easily lead to symptoms such as headache, which is the main reason for the slow drunkenness. This project finely regulates the metabolic pathways of higher alcohols in Saccharomyces cerevisiae through genetic engineering to reduce the production of higher alcohols. First, the intracellular homologous recombination technology was used to knock out the branched-chain amino acid aminotransferase encoded by the BAT2 gene, and at the same time, the alcohol acetyltransferase ATF1 gene was used to replace the position of the BAT2 gene. Secondly, the ATF1 gene is placed on the expression vector of Saccharomyces cerevisiae and then transferred to Saccharomyces cerevisiae, to achieve the purpose of reducing the level of higher alcohol in Saccharomyces cerevisiae. This project makes the brewed beverage have less high alcohol content so that the drinker is not uncomfortable in the head. Key Words: BAT2, ATF1, high alcohol [Wiki](https://2022.igem.wiki/shanghai-metropolis)https://static.igem.org/peertube/streaming-playlists/hls/eccfb083-7ed9-4b3e-98ea-4ce177c3ce22/912c6424-1325-46bf-b650-7219367313ea-master.m3u8https://video.igem.org/videos/embed/vf4EhpWhHRqmQtyz4PvUVY900012022-10-19T10:32:52.560ZYES2022 Team PresentationsNOhttps://video.igem.org/w/oECmLpZ93zeAPAFu2q99Rchttps://video.igem.org/lazy-static/thumbnails/ab509365-ebe0-4c2d-b293-0b0d8e12c57e.jpgYiYe-China: Detecting dysregulation of RNA splicing for myelodysplastic syndrome... (2022) - Team...**Title:** Detecting dysregulation of RNA splicing for myelodysplastic syndromes diagnosis using RNA splicing sensors **Description:** Myelodysplastic syndromes (MDS) are the commonest hematologic malignancies in the elderly. Now, the accurate diagnosis of MDS still heavily rely on the experienced hematologists morphological evaluation of peripheral blood and bone marrow cells. Therefore, it is urgent to develop more effective detection methods for MDS diagnosis. Aberrant splicing is strongly associated with MDS. Many RNA splicing-related genes have been found to mutate in around 50% of MDS patients, suggesting analysis of RNA splicing status should be used for diagnosis of MDS. It is reported that exons of mitogen-activated protein kinase kinase kinase 7 (MAP3K7) and zinc finger protein 91 (ZFN91) were skipped in MDS patients. This inspired us of constructing sensors fused the skipping exons into the plasmids containing reporter, which monitors the alteration of RNA splicing in cells. Our project provides a simple and effective method for early diagnosis and prediction of prognosis in MDS in the future. [Wiki](https://2022.igem.wiki/yiye-china)https://static.igem.org/peertube/streaming-playlists/hls/b78db85f-cfd0-4397-8a9e-1ab450f24525/045ec748-da43-4d4d-a177-2192642dca26-master.m3u8https://video.igem.org/videos/embed/oECmLpZ93zeAPAFu2q99Rc885022022-10-19T10:39:10.186ZYES2022 Team PresentationsNOhttps://video.igem.org/w/81M7mt3LBktV1hCEzPbNtfhttps://video.igem.org/lazy-static/thumbnails/15832661-6137-4fd8-8392-53227dd35ed6.jpgSesame_Shenzhen: Uric Acid Lowering Probiotic (2022) - Team Presentation [English]**Title:** Uric Acid Lowering Probiotic **Description:** Uric acid (C5H4N4O) is the end-product of purine catabolism. The increased consumption of foods such as red meat, seafood, and alcoholic beverages is directly associated with high uric acid blood levels and a higher prevalence of hyperuricemia. Hyperuricemia can lead to the formation of urate stones and gout and is an independent risk factor for hypertension, chronic kidney disease, cancer, and mortality. Adverse side effects and disadvantages have been identified for existing treatment methods, which confirm the need for a much safer uric acid-lowering treatment therapy with no adverse side effects. Our project introduces exogenous uricase as a novel treatment method. We utilized molecular cloning technologies to insert the gene encoding for urate oxidase into Escherichia Coli, uricase oxidase can decompose uric acid. Our method is associated with various long-term, sustainable benefits, and does not correlate with any adverse side effects. [Wiki](https://2022.igem.wiki/sesame-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/38cbc536-1bee-4cdb-a31b-841c53adcb44/25354f89-8f67-449f-8a6d-a1c25549cdac-master.m3u8https://video.igem.org/videos/embed/81M7mt3LBktV1hCEzPbNtf849052022-10-19T10:45:01.388ZYES2022 Team PresentationsNOhttps://video.igem.org/w/s8NDTKgJcnfpv2qTRAs32rhttps://video.igem.org/lazy-static/thumbnails/9cf48312-bd52-408a-a315-6e53b234ca59.jpgICJFLS: Dawnlight Saga: A Portable Detector for MDD Based on Toehold Switch and ... (2022) - Team...**Title:** Dawnlight Saga: A Portable Detector for MDD Based on Toehold Switch and Cell Free System **Description:** Major depressive disorder (MDD) is a common chronic psychological disease, resulting in heavy family and social burdens. However, current diagnosis of MDD is mainly based on the patients' description of symptoms, assessment of mental status and evaluation of clinical behaviors, which increase the rate of misdiagnosis. Developing the biomarkers and effective diagnosis method of MDD remains a challenge. Here we report the development of a novel, inexpensive, and portable filter-paper-based biosensor, which can be used to diagnose MDD patients by detecting the abundance of specific microRNA in blood. This biosensor comprises nucleic-acid toehold switches designed to bind to the identified differentially expressed biomarker miRNAs in MDD, namely miR-34a-5p, miR-221-3p and let-7d-3p. Each toehold switch requires a biomarker miRNA-antimiRNA complex to trigger the expression of a marker protein, which could be easily measured. The developed switches may be embedded in a composite biosensor to yield a paper-based device for detecting MDD. [Wiki](https://2022.igem.wiki/icjfls)https://static.igem.org/peertube/streaming-playlists/hls/d3a4900b-8231-49c7-866d-d4f788d6ec2b/8977ab03-8972-4540-a228-96361645bb15-master.m3u8https://video.igem.org/videos/embed/s8NDTKgJcnfpv2qTRAs32r758022022-10-19T10:51:54.165ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qj6HW2r737iECDrBopD1w6https://video.igem.org/lazy-static/thumbnails/637e1a3d-8cb5-44e2-b640-0198bc169eed.jpgHNU_China: P Pack (2022) - Team Presentation [English]**Title:** P Pack **Description:** P Pack is generally a genetic-modified E.coli strain which can recycle inorganic phosphate from eutrophic water. Our project focuses on three native genetic parts related to phosphorus metabolism in E.coli genome. Pst complex, which generally express during phosphorus starvation, is used to absorb phosphate efficiently. Phosphate in cytoplasm of E.coli can polymerize to create poly-phosphate(polyP) as the storage form. This process is conducted by mutated PPK protein. YjbB complex, which generally conducts phosphate release, is regulated for phosphate recycling.The framework of these parts is conducted by a thermal-sensitive repressor called cI857. The genetic-modified E.coli strain can switch its mode between phosphate absorbing and release in different thermal condition. [Wiki](https://2022.igem.wiki/hnu-china)https://static.igem.org/peertube/streaming-playlists/hls/c4e23e1a-d336-404b-b453-88387e094509/3b110334-1ac7-4a41-9655-ce0690dcb431-master.m3u8https://video.igem.org/videos/embed/qj6HW2r737iECDrBopD1w6784022022-10-19T10:54:12.816ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qGhQMb4m3jA39F97KMKMKQhttps://video.igem.org/lazy-static/thumbnails/edbcc329-b8fb-444f-84fc-c3178ab298bb.jpgPuiChing_Macau: Supporting hydroponic farming using engineered bacteria hormone-... (2022) - Team...**Title:** Supporting hydroponic farming using engineered bacteria hormone-targeting and pH-adjusting systems **Description:** Due to the increasing food shortage caused by global warming, populated cities, including Macau, need alternative sustainable food sources to stabilize the supply. While hydroponics can be used to increase food supply, the yield of such a system is relatively low. One of the reasons is that the nutrition solution needs to be discarded regularly, to prevent pH changes. Here, we engineered E. coli to include a genetic pH Shooting (GPS) system which can neutralize the solution from time to time. To further increase the yield, we also created the hormone binding systems (HBDs), as some plant hormones like abscisic acid (ABA) are known to slow down plant growth. We here engineered E. coli to produce hormone binding proteins, T2R4 and PYL8, to inhibit ABA. By using HBD and GPS, we hope to establish a sustainable hydroponic agriculture system in the near future. [Wiki](https://2022.igem.wiki/puiching-macau)https://static.igem.org/peertube/streaming-playlists/hls/c7fb7510-8d00-48be-a01b-f60fdf38d42a/76977873-a6c9-42c6-9068-46fcce84002c-master.m3u8https://video.igem.org/videos/embed/qGhQMb4m3jA39F97KMKMKQ786022022-10-19T11:05:47.821ZYES2022 Team PresentationsNOhttps://video.igem.org/w/2C9fXDCHV2CzprHVxXbFE2https://video.igem.org/lazy-static/thumbnails/5cf7664e-9cb1-41a5-bfcc-76d86a39cee4.jpgCPU_Nanjing: Accelerating the Evolution of Phosphorus on Terrestrial Planets by ... (2022) - Team...**Title:** Accelerating the Evolution of Phosphorus on Terrestrial Planets by Coupling Phosphite Oxidation and Polyphosphate Synthesis. **Description:** Low oxidation state phosphite, the dominant form of phosphorus on terrestrial planets, posed a formidable challenge on future interstellar migration. Involved in every aspect of life, phosphate rather phosphite is indispensable in the progress of human civilization. Thus, manufacture phosphate form phosphite is key to future success. Herein, by coupling phosphite dehydrogenase (PD) and polyphosphate kinase (PPK), we proposed a strategy that can spur E. coli to continuously produce phosphate from phosphite. In our engineered metabolic pathway, polyphosphate that derived from intracellular ATP is the crucial intermediate. Given that one phosphoric acid radical of ATP is deprived by PPK for polyphosphate synthesis, regeneration of ATP necessitated the oxidation of more phosphite by PD, thus achieving a high phosphate yield. In addition, to achieve the production trial in the context of terrestrial planets, we developed solar-energy driven algae processing hardware aiming at providing oxygen and nutrients for the engineered chassis. [Wiki](https://2022.igem.wiki/cpu-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/0d2500e5-b5bf-4a9f-94ce-ba71e9ce9839/8043fa2e-eacf-4375-a84d-b3014c787cb1-master.m3u8https://video.igem.org/videos/embed/2C9fXDCHV2CzprHVxXbFE2900012022-10-19T11:12:30.601ZYES2022 Team PresentationsNOhttps://video.igem.org/w/p2uoWBiafviGKHTssHGXt3https://video.igem.org/lazy-static/thumbnails/48f04131-857f-4f3f-8b8b-d6f4cd49fbda.jpgiGEM Academy LEARNiGEM Academy LEARNhttps://static.igem.org/peertube/streaming-playlists/hls/ba776eac-dde4-4098-aa55-ec12539bd1ec/56dfbe34-d638-42a7-9d25-69e1a5292bf0-master.m3u8https://video.igem.org/videos/embed/p2uoWBiafviGKHTssHGXt31310482022-10-19T10:59:28.251ZeducationacademylearnYESiGEM Design LeagueNOhttps://video.igem.org/w/kUojT9UcAdJfSpJ2J3tcEWhttps://video.igem.org/lazy-static/thumbnails/33d73528-9890-4022-acd8-c0be58bf1c86.jpgNEFU_China: Standardized DNA assembly strategy for Saccharomyces cerevisiae (2022) - Team Present...**Title:** Standardized DNA assembly strategy for Saccharomyces cerevisiae **Description:** Saccharomyces cerevisiae is generally recognized as a safe eukaryotic model microorganism and has shown great potential as a biosynthetic host. However, since Saccharomyces cerevisiae is a monocistronic organism, building complex metabolic pathways in it is challenging. The 2022 NEFU_China team provides a DNA assembly strategy, which standardizes and modularizes the DNA assembly process enough, with high positive rate, so that the strategy can be fully adapted to single and repeated mechanical operations, and take advantage of mechanization to achieve the assembly of a large number of DNA fragments in a short time. Our team has built a suite of automated DNA assembly hardware that is fully functional but at a low cost that most biology labs around the world can support. We have compiled the information above into a manual and made it publicly available to help iGEM teams around the world build automated DNA assembly platforms. [Wiki](https://2022.igem.wiki/nefu-china)https://static.igem.org/peertube/streaming-playlists/hls/a12e11b6-65da-4555-a36c-7b41a397d436/522b14d5-c372-4f8d-9ad2-3cf104b7686a-master.m3u8https://video.igem.org/videos/embed/kUojT9UcAdJfSpJ2J3tcEW8790122022-10-19T11:19:37.063ZYES2022 Team PresentationsNOhttps://video.igem.org/w/8HgZnnQPSxzUXS9jMWEk67https://video.igem.org/lazy-static/thumbnails/75b10126-c057-4bb1-a6b8-03b68e5ef320.jpgPeking: DEEPI, a new paradigm of antibiotic resistance (2022) - Team Presentation [English]**Title:** DEEPI, a new paradigm of antibiotic resistance **Description:** Nowadays, antibiotic resistance is one of the top ten global public health threats. Among many solutions against this crisis, EPI (Efflux Pump Inhibiter) is a potentially efficient kind of medicine in response to drug resistance generated by efflux pumps, the most important mechanism of antibiotic resistance. However, most of current EPI have several disadvantages: Difficult to synthesize, Toxic and Low effect commendably, which hinders its further clinical application. Our project aimed to develop a standardized modular short-peptide EPI optimization procedure based on directed evolution and Yeast-E.coli co-culture system. Through this procedure, as long as we know the structure of an efflux pump, we could generate an efficient EPI that could been synthesized by microorganisms easily. For security reasons we used AcrB pump in E.coli as a demonstration of our project and successfully constructed the co-culture system this summer. We hope to come up with a new solution to the antibiotic crisis. [Wiki](https://2022.igem.wiki/peking)https://static.igem.org/peertube/streaming-playlists/hls/3e73519e-e86c-499b-bb9c-2b4c31971fc4/9e4ea93f-1c7c-42cd-88b7-1fb102ae45a8-master.m3u8https://video.igem.org/videos/embed/8HgZnnQPSxzUXS9jMWEk67835002022-10-19T11:34:02.966ZYES2022 Team PresentationsNOhttps://video.igem.org/w/tFFXp2YwTGLruvwTi9nepxhttps://video.igem.org/lazy-static/thumbnails/4d966fe1-e073-4c04-9d3b-bff299cc98af.jpgCAFA_China: A kill switch for synthetic life (2022) - Team Presentation [English]**Title:** A kill switch for synthetic life **Description:** A 'kill switch' is defined as an artificial system that causes cell death under certain conditions. In other IGEM team projects, the kill switch is often used to ensure the biosafety of the project. Our team designed a series of cell death programs, programmed control of life and presented a series of 'engineered bacterial death simulators' in the form of installation art, in which bacteria will perform their life performance. [Wiki](https://2022.igem.wiki/cafa-china)https://static.igem.org/peertube/streaming-playlists/hls/e0315fc2-ff6e-4231-9269-08d1dadc2051/3268e1c3-0205-49a1-85e8-e1e92331a93d-master.m3u8https://video.igem.org/videos/embed/tFFXp2YwTGLruvwTi9nepx1186062022-10-19T11:42:14.456ZYES2022 Team PresentationsNOhttps://video.igem.org/w/9uCCctpBX3yCLsZvwSo5Hqhttps://video.igem.org/lazy-static/thumbnails/f61ddf76-641b-4faf-8e17-d30561624bf6.jpgSYSU-Software: LOUPE (2022) - Team Presentation [English]**Title:** LOUPE **Description:** The arms race between prokaryotes and viruses drives the evolution of various defense systems, like CRSIPR-Cas system and RM system, the genes of which account for a large proportion of the genome. Studies show that these defense genes tend to cluster, forming the so-called defense islands. Inside the defense island exist many currently unknown genes which might turn up to be novel defense genes However, the huge amount of data and skills of multiple bioinformatic tools required can be quite unfriendly to researchers new to the fields, and the rapidly progress made in the fields makes it hard for the existing databases to catch up. Therefore, our project LOUPE focuses mainly on the discovery of the currently unknown defense genes in prokaryotes by exploiting the idea of defense islands. It consists of an online database coupled with a local prediction and evaluation platform of defense genes with optimized protocol. [Wiki](https://2022.igem.wiki/sysu-software)https://static.igem.org/peertube/streaming-playlists/hls/44c88157-a356-4c6e-ae75-02c7c59a4102/e6d367c8-6874-49f4-b802-b75b61b074bc-master.m3u8https://video.igem.org/videos/embed/9uCCctpBX3yCLsZvwSo5Hq747032022-10-19T11:46:45.734ZYES2022 Team PresentationsNOhttps://video.igem.org/w/aE1SW4ZnPxPSe14Lr2bpYehttps://video.igem.org/lazy-static/thumbnails/ff9ceef9-77b1-4d88-acf4-5cb3464b62c3.jpgFAFU-China: Longan GABA cell factory (2022) - Team Presentation [English]**Title:** Longan GABA cell factory **Description:** With the increase in the pace of life and competitive pressure, people in current society are often plagued by insomnia and anxiety. FAFU-China iGEM team found that GABA is a substance that improves the quality of human sleep, lowers blood pressure and relieves anxiety. They determined to use synthetic biology and molecular biology as the core tools to screen the key genes in the GABA synthesis pathway and improve the content of GABA in the embryonic healing tissue of longan by constructing overexpression vectors and CRISPR-Cas9 technology. Subsequently, they will further improve the GABA content by some exogenous treatments such as blue light and hormone treatment, in order to create a high yield GABA cell factory, and cooperate with related companies to extract the GABA and use it in the pharmaceutical industry. [Wiki](https://2022.igem.wiki/fafu-china)https://static.igem.org/peertube/streaming-playlists/hls/4e310d68-6154-4868-9eec-3f83d4351eb9/4350f3d0-2d35-4035-8dce-6fbe0c479202-master.m3u8https://video.igem.org/videos/embed/aE1SW4ZnPxPSe14Lr2bpYe936002022-10-19T11:54:13.636ZYES2022 Team PresentationsNOhttps://video.igem.org/w/kuFkaS8fR2w1J3XVxmSiYuhttps://video.igem.org/lazy-static/thumbnails/71a2aea0-3d74-4d8b-b013-06edfa04144e.jpgTHINKER_CHINA: LysTech DETR, a pioneering chromogenic detection system (2022) - Team Presentation...**Title:** LysTech DETR, a pioneering chromogenic detection system **Description:** The primary detection methods are effective but are expensive and require heavy machines with complex operations. Therefore, we, THINKER_CHINA, with biosensors as our core, are working on designing a better, cheaper, more efficient detection module and reporting module that can be market-oriented. Our biosensor is essentially based on the high specificity of E coli s operons and the function of SRRz lysis gene. SRRz is a kind of gene extracted from phages, and the expression of which has the effect of lysing the bacterial cell wall. Bacterial endogenous -galactosidase can catalyze the chromogenic reaction of the colorless substrate x-gal. The chromogenic reaction demonstrates a clear pattern of different greyscale values, positively correlated with the intensity of SRRz gene expression. And this operon-induced expression is correlated with the intensity of the objective factors, so different concentrations of the factors result in different greyscale values. [Wiki](https://2022.igem.wiki/thinker-china)https://static.igem.org/peertube/streaming-playlists/hls/9ddeb2c9-e27e-4ddf-a826-6dd64d14fe60/f7bae532-9a32-457b-86ce-c82ac919b7a5-master.m3u8https://video.igem.org/videos/embed/kuFkaS8fR2w1J3XVxmSiYu8990102022-10-19T12:07:43.839ZYES2022 Team PresentationsNOhttps://video.igem.org/w/j6bvMfkzh74v9SY7mMEMRChttps://video.igem.org/lazy-static/thumbnails/6bf5cc14-8924-4a7a-8117-3dc07de13eac.jpgBJEA_China: A polular deteriorated cheese BslA (2022) - Team Presentation [English]**Title:** A polular deteriorated cheese BslA **Description:** Hydrophobins are small surface-active amphiphilic proteins that contain both hydrophobic and hydrophilic areas on their surface. They can self-assemble to form a stable film at the interface of both polar and non-polar solution phases. Thanks to high surface activity and amphiphilicity, Hydrophobins have broad application prospects as surfactants in interface engineering, emulsifiers in food processing, bioimmobilization agents in nanotechnology, and powerful protein purification tags in biotechnology. Our project features BslA, a bacterial-origin hydrophobin with great potential and wide application in synthetic biology. BslA is much easier to produce compared to their fungal-origin cousins, which overcomes the limitations of their industrial use. We hope to unleash the potential of BslA and solve some of the major concerns of the synbio community and humanity as a whole. To this end, Our team designed three BslA fusion proteins that target three problems: protein purification, antibiotic abuse, and plastic pollution. [Wiki](https://2022.igem.wiki/bjea-china)https://static.igem.org/peertube/streaming-playlists/hls/927db1a1-b727-4082-b01e-917e36c0b852/5e97d8fd-63a7-4915-bf6c-2678a8dc0eec-master.m3u8https://video.igem.org/videos/embed/j6bvMfkzh74v9SY7mMEMRC854042022-10-19T12:10:42.650ZYES2022 Team PresentationsNOhttps://video.igem.org/w/5qVSY3QYERE2RqBkVAfs4ohttps://video.igem.org/lazy-static/thumbnails/2ecaa4de-e533-4f9b-a042-5478b91f7f0b.jpgJilin_China: Coleader.zip Heavy metal treatment of copper, lead and zinc (2022) - Team Presentati...**Title:** Coleader.zip Heavy metal treatment of copper, lead and zinc **Description:** Heavy metal pollution is a serious environmental problem in both developed and developing countries. The existing chemical degradation methods have problems such as high cost, complicated process, low recovery efficiency, and severe secondary pollution. In 2022 Jilin China team is trying to build a new type of engineered bacteria for the treatment of copper, lead and zinc ions, which integrates heavy metal ion sensing and adsorption. The specific promoter can effectively sense the presence of heavy metal ion, and then activate the downstream fused expression of the metal binding protein and outer membrane protein on the cell surface. And the expression is to achieve the purpose of adsorbing heavy metal ions. Combined with our practical design, our whole system is expected to solve the increasingly serious heavy metal ion pollution. [Wiki](https://2022.igem.wiki/jilin-china)https://static.igem.org/peertube/streaming-playlists/hls/23df9beb-d5e8-4a33-86f4-28dba49e171c/8ad1059b-98b6-4828-9cbd-c007431b9b0f-master.m3u8https://video.igem.org/videos/embed/5qVSY3QYERE2RqBkVAfs4o7770142022-10-19T12:13:22.908ZYES2022 Team PresentationsNOhttps://video.igem.org/w/o8smk7kXERtKy92r9aJGtfhttps://video.igem.org/lazy-static/thumbnails/27b04009-b5c3-45cd-8c65-9294b2d4aa9c.jpgKAIT_JAPAN: Effective Biosynthesis of Cannabidiol via Saccharomyces cerevisiae (2022) - Team Pres...**Title:** Effective Biosynthesis of Cannabidiol via Saccharomyces cerevisiae **Description:** Stress can affect all parts of our life, including our emotions, behaviors, and physical health. These symptoms can be eased by using a substance called CBD. CBD is known to have relaxing and anti-inflammatory effects. CBD is extracted from hemp. The methods of extraction are complicated and costly. Therefore, CBD infused products are expensive. Our main goal is to produce CBD efficiently via Saccharomyces cerevisiae. The production of CBD requires two substances. These substances are, geranylgeranyl-PP(GPP) and olivetolic acid (OA). During the production of GPP, two rate-limiting enzymes are present. Therefore, by overexpressing these enzymes, we expect an increase in the production yield. OA should be added to the culture medium to produce CBD. However, OA is expensive. Therefore, we thought of producing OA in S. cerevisiae. We believe that this method of CBD production can be cost and yield effective. Therefore, making CBD infused products more affordable for consumers. [Wiki](https://2022.igem.wiki/kait-japan)https://static.igem.org/peertube/streaming-playlists/hls/b3337ef9-0789-4c63-bd43-94d7776e63ac/5ac67744-716e-4179-a5e5-89f732d0cddd-master.m3u8https://video.igem.org/videos/embed/o8smk7kXERtKy92r9aJGtf348032022-10-19T12:22:04.923ZYES2022 Team PresentationsNOhttps://video.igem.org/w/gNeXg6WY3hX6G7GYwuYAdmhttps://video.igem.org/lazy-static/thumbnails/7250c396-9e32-4541-b425-339c3df0bcb3.jpgASIJ_Tokyo: Project LOTUS: Don't FRET (2022) - Team Presentation [English]**Title:** Project LOTUS: Don't FRET **Description:** In recent years, breast cancer has seen a surge in cases globally and is the second leading cause of cancer deaths among women. Current screening methods, including mammograms and MRIs, can be uncomfortable and costly, discouraging many women from regular screening. However, early detection can greatly increase survival rates, calling for the need for a better screening method. We thus propose a convenient and minimally-invasive testing kit for breast cancer. Our initial research revealed that Mucin 1 is overexpressed in patients, so we initially planned to detect its concentrations through a lateral flow assay (LFA). However, we switched to Aptamer FRET this year upon learning that LFAs are less accurate than expected. Due to a higher range of error than expected and a risk of false positives, we concluded that this method is best used to detect other diseases where any concentration of biomarker indicates that a patient requires treatment. [Wiki](https://2022.igem.wiki/asij-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/7fede45b-3981-4aeb-b435-a8a1bdd194d4/76d402ec-7dbb-4307-8d73-5b2c42c056c7-master.m3u8https://video.igem.org/videos/embed/gNeXg6WY3hX6G7GYwuYAdm895002022-10-19T12:24:41.619ZYES2022 Team PresentationsNOhttps://video.igem.org/w/dS7NqYsWe5TLSU3gTJRfh5https://video.igem.org/lazy-static/thumbnails/69045fe4-8fe0-4b43-ac9b-ee30a659a0f8.jpgKUAS_Korea: ABC biofilter: Algal Bloom Cleaning & Anammox Based on Cell free bio... (2022) - Team...**Title:** ABC biofilter: Algal Bloom Cleaning & Anammox Based on Cell free biofilter **Description:** We observed the damage of river ecosystems caused by algae bloom in Republic of Korea this year, and community members suffered from algae bloom, with the odor of rivers and microcystin detected in tap water and various crops. Therefore, we have devised ABC biofilter, which solves this problem while also considering bio safety. Because anammox bacteria are difficult to cultivate, we produce enzymes necessary for the anammox process through cell free system, produce the biofilter with that enzymes which convert NO2- and NH4+ into N2 and prevent eutrophication which is the main cause of algae bloom. Also, we use cell free system to produce Superoxide dismutase (SOD) which produce H2O2 that remove green algae. Through this, we will prevent the algae bloom and remove green algae to maintain a healthy ecosystem of rivers and help people around the world from being harmed by algae bloom. [Wiki](https://2022.igem.wiki/kuas-korea)https://static.igem.org/peertube/streaming-playlists/hls/682d0b1b-d8d1-4a8f-896e-8458cd25d384/7a00496c-175d-484b-a4fb-48ee605afe06-master.m3u8https://video.igem.org/videos/embed/dS7NqYsWe5TLSU3gTJRfh51067052022-10-19T12:28:28.836ZYES2022 Team PresentationsNOhttps://video.igem.org/w/3encGPHi5QwVexQ5VdjBNFhttps://video.igem.org/lazy-static/thumbnails/273f75a7-7480-4a34-af77-97a1ad1a78d8.jpgNCHU_Taichung: A Novel Therapeutic, Modified Dressing With The Functional PQQ (2022) - Team Prese...**Title:** A Novel Therapeutic, Modified Dressing With The Functional PQQ **Description:** An excessive blood sugar concentration in patients suffering from diabetes mellitus (DM) inhibits the healing of skin wounds. When it becomes severe, ordinary wounds can lead to amputations. This year, NCHU_Taichung aims to develop a wound repair-promoting dressing for DM patients with an intrinsic compound, pyrroloquinoline quinone (PQQ). To increase the yield of PQQ, a well-known probiotic was used, <i> Bacillus subtilis </i> natto, as our host and redesigned the PQQ plasmid shown in 2021 NCHU_Taichung. A xylose-dependent promoter was implemented to regulate the biosynthesis rate. The fermentation product using glucose-induced keratinocyte to evaluate the effect of PQQ. The results of wound healing assay in HaCaT cells indicated when supplement with PQQ can accelerate the cell migration within 24 hours observation compare with untreated group, which provide a concrete evidence to increase DM patients injury recovery and has its high-potential to become a commercial product in a low-cost. [Wiki](https://2022.igem.wiki/nchu-taichung)https://static.igem.org/peertube/streaming-playlists/hls/1210032c-7b99-4372-af25-137be51eca2f/4769c2b0-62cf-442e-a193-22a4c74e3f16-master.m3u8https://video.igem.org/videos/embed/3encGPHi5QwVexQ5VdjBNF110022022-10-19T12:51:31.406ZYES2022 Team PresentationsNOhttps://video.igem.org/w/9XWxpQTKp57ipKNa3uXkAehttps://video.igem.org/lazy-static/thumbnails/92c208df-6642-4659-b32b-9ae2e448d447.jpgBJWZ-China: Put Ears On Yeast Make Them Hear The Voice Of The World (2022) - Team Presentation [E...**Title:** Put Ears On Yeast Make Them Hear The Voice Of The World **Description:** Hearing, as we know, is an animal's ability to perceive sound, It's the process of converting mechanical energy into electromagnetic signals. But the mechanism is not fully understood BJWZ-China is trying to be the first to explore a similar sensory system in microbes. We set out to exploit the 'NAN-IAV pattern' of ion channels that make up auditory mechanotransduction in Drosophila. In the experiment, it was introduced into Saccharomyces cerevisiae and the auditory module was constructed. We transformed the designed plasmid into Escherichia coli for amplification and culture, and then transferred into yeast for yeast transformation by plasmid extraction. Yeast DNA was extracted for PCR verification, followed by electrophoresis verification. Finally, the transformers were prepared and frozen in glycerol tubes. By studying this life phenomenon, we conducted the first round of research for the project of sensing cancer, and preliminary exploration for the subsequent research of sound transduction in microorganisms. [Wiki](https://2022.igem.wiki/bjwz-china)https://static.igem.org/peertube/streaming-playlists/hls/4898a10a-8848-448a-83c4-913f65f0c945/ebc9ac1f-e7a7-4afc-b3b2-c7f2a1965af4-master.m3u8https://video.igem.org/videos/embed/9XWxpQTKp57ipKNa3uXkAe945062022-10-19T13:10:38.865ZYES2022 Team PresentationsNOhttps://video.igem.org/w/hzooxwwYUDQYR9Z1fuSMrZhttps://video.igem.org/lazy-static/thumbnails/cc02f23b-ae9a-4b2f-8a70-f7b85fa9c88f.jpgRUBochum: BioSpatch: Synthetic Spidersilk-Proteins Plasters for Chronic Wounds (2022) - Team Pres...**Title:** BioSpatch: Synthetic Spidersilk-Proteins Plasters for Chronic Wounds **Description:** Chronic wounds are an increasing problem, especially for the elderly and people with pre-existing health conditions. It's estimated that 2% of the population are affected by chronic wounds in the United States alone. We aim to produce wound-healing 'plasters' with particularly high biocompatibility for poorly healing open wounds from synthetically produced spider threads. To accomplish this, we produce spidroins (spider silk proteins) with modified Escherichia coli. After protein purification, the threads would be spun to bundle them. The tissue would be applied directly to the previously cleaned and disinfected affected area. Promotion of wound healing in the inflammation, granulation and regeneration phases would be achieved by incorporating the moist wound environment through the patch as part of a synthetic skin. [Wiki](https://2022.igem.wiki/rubochum)https://static.igem.org/peertube/streaming-playlists/hls/863b8f7b-f837-4b99-acc6-46ef83cf9607/64eefa98-4e54-4bb5-9966-bef5e11e0a12-master.m3u8https://video.igem.org/videos/embed/hzooxwwYUDQYR9Z1fuSMrZ551012022-10-19T13:12:32.423ZYES2022 Team PresentationsNOhttps://video.igem.org/w/amoFqUi9y6YQ6RsjznmBUvhttps://video.igem.org/lazy-static/thumbnails/3dd285bc-140e-4e60-8dff-77f936433814.jpgWashington: WaMel (2022) - Team Presentation [English]**Title:** WaMel **Description:** There are nearly 100,000 cases of melanoma in the United States (US) each year. When diagnosed early, 98% of melanoma patients survive. However, in the US 9,000 people each year die from the disease. Early detection of melanoma is very important as early detection can drastically increase treatment efficacy and thus survivability. We have worked on developing a paper-based point of care (POC) diagnostic test for early detection of melanoma. Additionally, we have also designed peptide-based anti-cancer therapeutics for treating advanced stage melanoma. [Wiki](https://2022.igem.wiki/washington)https://static.igem.org/peertube/streaming-playlists/hls/4bbb19ab-81b2-424d-bf3f-c3bee5b80361/f2d82e46-3775-4aae-9966-040f2d0859d8-master.m3u8https://video.igem.org/videos/embed/amoFqUi9y6YQ6RsjznmBUv884012022-10-19T13:07:51.858ZYES2022 Team PresentationsNOhttps://video.igem.org/w/6PXnoWPwZDfxcTQrThfJuehttps://video.igem.org/lazy-static/thumbnails/ecdcca35-c7b7-4116-aacb-ab3c76205147.jpgCU_Egypt: Novel synthetic switchable systems targeting degradation of protein ag... (2022) - Team...**Title:** Novel synthetic switchable systems targeting degradation of protein aggregations to treat Alzheimer s **Description:** The number of people suffering from memory loss has been increasing drastically. Alzheimer's Disease (AD) brings about 65% of the dementia cases, it is predicted by DW to be a main cause of death by 2050, especially in the Middle East. Whereas the latter is expected to witness a dementia pandemic during the next decades. Unfortunately, most of the current medications only hinder the progression of the disease. In our project Zekra, we focus on eliminating the causes of the disease by degrading the silent-killer aggregations of tau and amyloid beta (A ) proteins, these aggregates block the neurons communication and trigger neuroinflammation eventually leading to cell apoptosis. We decided to target both tau and amyloid plaques degradation with the help of two systems: one activates the proteasomal degradation cascade intracellularly while the other is a switchable protease system that degrades tau and A on site, extracellularly. [Wiki](https://2022.igem.wiki/cu-egypt)https://static.igem.org/peertube/streaming-playlists/hls/2f2fc5d4-f3bf-4f7b-89e3-7def7e095d9d/38b74501-9559-4304-80e3-2563cfbe715b-master.m3u8https://video.igem.org/videos/embed/6PXnoWPwZDfxcTQrThfJue868012022-10-19T13:15:05.575ZYES2022 Team PresentationsNOhttps://video.igem.org/w/1DFKh6zH63AfEqyHbEmW61https://video.igem.org/lazy-static/thumbnails/7b37b601-1358-4fa6-b904-e6b9e4f0c472.jpgUSTC: Optimized Lipid Nanoparticle Pharmaceutical Drug Delivery System through B... (2022) - Team...**Title:** Optimized Lipid Nanoparticle Pharmaceutical Drug Delivery System through Borneol Modification **Description:** Lipid nanoparticle (LNP) is a novel pharmaceutical drug delivery system and a novel pharmaceutical formulation. But this promising drug delivery system has no effect on many cerebral diseases due to the difficulty in drug delivery across the blood brain barrier (BBB). In our project, we developed Bor-NP, a novel nanoparticle modified by borneol, which has been proved with the ability to enhance other drugs transport across the BBB. At the same time, we tried to establish a system which can mass-produce this kind of Bor-NP. We took advantage of Yarrowia lipolytica to boost the borneol production, and then conjugate these borneol to the succinimide group of N-hydroxy succinimide poly(ethyleneglycol) poly(lactic-co-glycolic acid) (NHS-PEG-PLGA) to produce the Bor-NP. In a conclusion, our project focused on producing nanoparticles to get through the BBB and establishing an effective bio-manufacturing system to produce this kind of nanoparticle to lower the cost and achieve better therapeutic effect. [Wiki](https://2022.igem.wiki/ustc)https://static.igem.org/peertube/streaming-playlists/hls/05430391-2d0b-468e-b274-935a064f06ba/de5d55d9-04ca-4945-ac35-2aa8283a3808-master.m3u8https://video.igem.org/videos/embed/1DFKh6zH63AfEqyHbEmW61903052022-10-19T13:33:35.180ZYES2022 Team PresentationsNOhttps://video.igem.org/w/6yJgzi1qXXweiyGXHZNTFRhttps://video.igem.org/lazy-static/thumbnails/091db184-32d4-49af-a926-dfec4904a49f.jpgUM_Macau: AcidOceanus: Resolving water acidification (2022) - Team Presentation [English]**Title:** AcidOceanus: Resolving water acidification **Description:** With the continual release of vast amounts of carbon dioxide, the water on Earth, particularly saltwater, faces acidification. Fortunately, we found the magical inward H+ pump, the Xenorhodopsin, expressed on the membrane of some archaea in some literatures. In our project, a genetically engineered E. coli, the AcidOceanus, is planned to be constructed and applied to absorb H+ in the water body. Integrating the Xenorhodopsin gene, AcidOceanus produce Xenorhodopsin and constantly transport H+ from water into intracellular space under light conditions. Furthermore, as an approach to recycle H+, we are about to coordinate will some companies to design a device where E. coli release the H+ in dark condition. Our project is devoted to providing a feasible direction, for water acidification in a small range of areas and at the same time educating the public, especially teens, to realize its hazards to marine life and the urgency to resolve it. [Wiki](https://2022.igem.wiki/um-macau)https://static.igem.org/peertube/streaming-playlists/hls/2d0f8af7-86b6-4618-ab40-c1dc49f3a353/4381ced1-2089-42f4-afa5-2f6b1ec6fcbb-master.m3u8https://video.igem.org/videos/embed/6yJgzi1qXXweiyGXHZNTFR8560132022-10-19T13:45:42.671ZYES2022 Team PresentationsNOhttps://video.igem.org/w/6auUwjUR5KFeMFcH8175Tqhttps://video.igem.org/lazy-static/thumbnails/8a3509cd-500c-456c-8c78-a869d858ef31.jpgSMS_Shenzhen: -galactase genetic engineering modification (2022) - Team Presentation [English]**Title:** -galactase genetic engineering modification **Description:** Lactose intolerance indicates intestinal discomfort caused by decreased beta-galactosidase to digest lactose. Since lactase hydrolyses lactose into glucose and galactose, when the expression of lactase declines due to genetic disorder or natural ageing, the amount of lactose people can tolerate will decrease. It is a worldwide health problem that about 70% of the world population suffered from lactose intolerance. Notably, the incidence is particularly high in Asia because the downward trend of expressing lactase is strengthened by diets rarely containing lactose. In the dairy industry, Aspergillus oryzae is one of the most widely used fungal sources of beta-galactosidase (lacA) to produce lactose-free products for people with lactose intolerance. To allow people with lactose intolerance to enjoy dairy products, our project aims to express lacA heterologously in Pichia pastoris, quantify the enzymatic property of lacA, and optimise the culture conditions of recombined Pichia pastors. [Wiki](https://2022.igem.wiki/sms-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/29d1336f-61a6-4eec-856f-a39f7f22dd46/34cea11a-bc06-4690-90ab-9351017ecafb-master.m3u8https://video.igem.org/videos/embed/6auUwjUR5KFeMFcH8175Tq1180012022-10-19T13:53:29.552ZYES2022 Team PresentationsNOhttps://video.igem.org/w/rd2kscftz18GQwMV2wE11Yhttps://video.igem.org/lazy-static/thumbnails/94f86eb1-17c4-41c1-a57f-5cc6b4a54b8a.jpgNNU-China: Omega-3 eggs - Start your brain and body building journey (2022) - Team Presentation [...**Title:** Omega-3 eggs - Start your brain and body building journey **Description:** As a daily nutritional food, how to improve the nutritional value of eggs has become a hot research topic in the food industry. Docosahexaenoic acid (DHA) and eicosapentaenoic acid (EPA) are essential omega-3 long-chain polyunsaturated fatty acids, which have irreplaceable effects on human health. Therefore, if eggs are rich in DHA and EPA, they can be incorporated into the daily diet of humans. Currently, only DHA eggs are available on the market, and it is obtained by feeding flaxseed into the feed of laying hens, which has the disadvantage of low content and high cost. Here, we hope to construct an engineered Yarrowia lipolytica strain that can produce DHA and EPA. In addition, the ratio of DHA/EPA in eggs can be changed to meet the needs of various groups of people, so as to achieve low-cost input and efficient output. [Wiki](https://2022.igem.wiki/nnu-china)https://static.igem.org/peertube/streaming-playlists/hls/cc2236f6-1547-4a65-80aa-1effc8b25968/e4f80d12-e45c-4c41-86f2-31d79a276f90-master.m3u8https://video.igem.org/videos/embed/rd2kscftz18GQwMV2wE11Y868082022-10-19T13:56:23.957ZYES2022 Team PresentationsNOhttps://video.igem.org/w/8CkkiGYtexebih58LG7Nohhttps://video.igem.org/lazy-static/thumbnails/4c1f0caf-192b-4dd3-970b-f7374c0c56b3.jpgNFLS_Nanjing: Indigo Dyengineers (2022) - Team Presentation [English]**Title:** Indigo Dyengineers **Description:** Our project tries to use corynebacterium glutamicum to produce indigodine dye. Comparing to traditional chemical dye, our biological dye is more environmental-friendly and money-saving. The bacteria will produce the dye directly and die from high temperature after the whole procedure of dyeing is done, causing no waste and leftovers, and the bacteria we use is of lower cost than the more commonly used substrate-- tryptophan. The biological dye can be used in fields such as medicine, agricultural industry and textile industry. We hope that our product can be put into industrial production. [Wiki](https://2022.igem.wiki/nfls-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/3dc2a91f-2bb4-4838-9e22-424734e8a034/90126fe7-e44e-4609-9d87-6f15576d0578-master.m3u8https://video.igem.org/videos/embed/8CkkiGYtexebih58LG7Noh886022022-10-19T14:12:21.927ZYES2022 Team PresentationsNOhttps://video.igem.org/w/3qrq497N7vPzfCyVtwSc4Lhttps://video.igem.org/lazy-static/thumbnails/bb2b5159-da2d-4bb8-b260-7c5c68c0edcf.jpgKEYSTONE: Aromata (2022) - Team Presentation [English]**Title:** Aromata **Description:** Body malodor is a social issue that bothers almost every individual, causing social embarrassment. After investigation, we have realized that Staphylococcus spp. are major cause of malodor. Therefore, team KEYSTONE 2022 aims to create a bio-deodorant that synthesizes antimicrobial lipopeptide fengycin, which can inhibits the quorum sensing system of Staphylococcus aureus, and a sandalwood perfume developed from santalene. We knocked-in the sfp and degQ gene into Bacillus subtilis to produce the fengycin. We also heterologously expressed the MVA pathway, ERG20, and santalene synthase in engineered E. coli to produce santalene. Our product, Aromata, has the hardware that guarantees a sustainable development by reducing transportation-emissions, comparing to the current single-used products. Hence, Aromata can provide a pleasing scent, while avoiding risks like chemical allergies and reducing negative environmental impacts. [Wiki](https://2022.igem.wiki/keystone)https://static.igem.org/peertube/streaming-playlists/hls/139bca49-58a5-4cd1-b712-5d63c6b07436/367d2640-b80c-483d-a0fc-4507419b2bdb-master.m3u8https://video.igem.org/videos/embed/3qrq497N7vPzfCyVtwSc4L750042022-10-19T14:29:08.146ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qFiPW3xs1E73S6zpc2o5F1https://video.igem.org/lazy-static/thumbnails/a938b95c-a525-468f-8e4d-ec24211354db.jpgSJTU-BioX-Shanghai: ODYSSEY (2022) - Team Presentation [English]**Title:** ODYSSEY **Description:** In the era of mankind striding towards the deep space, we are exploring the intriguing combination of DNA data storage technology and the novel application scenario of interstellar communication with the help of synthetic biology. To achieve it, we will firstly establish an improved method derived from Yin-Yang Codec System to encode massive information that will be transported within bacterial genome. Secondly, spore display technology and bioengineering transformation system are employed to engineer spores from B.subtilis with Dsup proteins and melanin to establish an information container with stronger resistance to radiations, especially GCR which may break DNAs when exposed. Finally, information retrieval rate will be analyzed by specific algorithm after experiments simulating the cosmic environment on those information-stored spores for a substantive demonstration of our design. [Wiki](https://2022.igem.wiki/sjtu-biox-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/c7d8521e-fcf7-4d2f-ac3b-dba8d8bab306/2debd7dd-9f5e-4ee1-b2e4-d9168da844f9-master.m3u8https://video.igem.org/videos/embed/qFiPW3xs1E73S6zpc2o5F1900032022-10-19T14:20:44.202ZYES2022 Team PresentationsNOhttps://video.igem.org/w/wHjaTn3LWJWTx9o6Lm9T8hhttps://video.igem.org/lazy-static/thumbnails/a85c61a9-dac2-4aa5-8840-7e2979c4b5c4.jpgGXU-China: Blue-green light-regulated sewage treatment bacterium preparation bas... (2022) - Team...**Title:** Blue-green light-regulated sewage treatment bacterium preparation based on Bacillus subtilis **Description:** Our project aims to modify Bacillus subtilis by building a molecular switch in Bacillus subtilis which expresses a large number of nitrogen-related enzymes under blue light irradiation to control the total nitrogen content in water with synthetic biological way. We hope it can decompose nitrogen-containing organic matter and avoid eutrophication of water bodies. On the other hand ,we design the suicide mechanism under green light irradiation causing the death of the strain which could significantly reduce the cost of biosafety disposal. By monitoring and analysis of temperature, dissolved oxygen, nitrogen salt concentration and other indicators in the water body with biosensors and mathematical modeling, we hope to make a photo-regulated bacterium preparation that is green and environmentally friendly with less repeated addition, a strong sewage treatment effect and adjustment of its concentration in real time. [Wiki](https://2022.igem.wiki/gxu-china)https://static.igem.org/peertube/streaming-playlists/hls/f8b6da30-718b-452d-8ab2-750d9645de12/359dc8f5-d4a7-4f69-a94e-db4db5cff622-master.m3u8https://video.igem.org/videos/embed/wHjaTn3LWJWTx9o6Lm9T8h843022022-10-19T14:23:37.376ZYES2022 Team PresentationsNOhttps://video.igem.org/w/cvcuQqxTM1k2ZAdCw3ZBVkhttps://video.igem.org/lazy-static/thumbnails/235137dd-9e59-4738-93d5-3e07d25f9a2b.jpgCUG-China: A Broadly Applicable Transcription-Based C-di-GMP Biosensor (2022) - Team Presentation...**Title:** A Broadly Applicable Transcription-Based C-di-GMP Biosensor **Description:** In nature, microbes can exist as either planktonic or biofilm. Once pathogens biofilm is formed in human body, it will be rather hard to eradicate. The second messenger c-di-GMP is a positive regulator of biofilm formation, and c-di-GMP signaling is regarded as a potential target for the development of antipathogenic compounds. However, it has not been possible to monitor c-di-GMP levels in real time in many bacteria, which limits to effectively screen c-di-GMP-targeted antipathogenic compounds. To overcome this limitation, we will construct a c-di-GMP biosensor that is readily adaptable for gauging c-di-GMP levels in different bacteria. To demonstrate the application of the c-di-GMP biosensor, we will use it as a tool to screen agents that can induce Escherichia coli and Shewanella oneidensis biofilm dispersal by decreasing its c-di-GMP levels. [Wiki](https://2022.igem.wiki/cug-china)https://static.igem.org/peertube/streaming-playlists/hls/5d282e12-01d2-4d5d-b6f4-85c87f0414c9/bd850ed9-4710-4cdb-93ac-2eecfc71f986-master.m3u8https://video.igem.org/videos/embed/cvcuQqxTM1k2ZAdCw3ZBVk800002022-10-19T14:33:50.472ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qpvoM77P5fDgQj2M3UuStVhttps://video.igem.org/lazy-static/thumbnails/dff57d46-b4df-45ac-b843-be64092e7cc0.jpgSCUT-China: FUNCDYES (2022) - Team Presentation [English]**Title:** FUNCDYES **Description:** Silk is an important representative of Chinese handicrafts. Silk is light and thin, with comfortable texture when wearing as garment. However, after being stained with sweat or exposed to direct sunlight, it may turn fragile and dull. During the dying process, lots of energy is consumed and many pollutants are produced, which is extremely harmful to the environment. As a result, our team produce special dyes, lycopene and patchoulol, with synthetic biology, which providing the silk with colors and antibacterial properties. These two terpenoids can be produce in vivo using pichia pastoris. We do promoter screening to select the best modified promoter and do epPCR to mutate the key enzyme PTS to improve its efficiency. We also build up an optogenetic system to achieve an elaborate regulation on the production of lycopene and patchoulol. Besides, a quick and accurate visualization method is presented to screen out the target strains. [Wiki](https://2022.igem.wiki/scut-china)https://static.igem.org/peertube/streaming-playlists/hls/c5a38c67-a000-46ba-80fb-28a1b2d49ffb/6ad8504b-fd6e-4f0f-a5fd-399ba0b87d50-master.m3u8https://video.igem.org/videos/embed/qpvoM77P5fDgQj2M3UuStV828022022-10-19T14:58:58.016ZYES2022 Team PresentationsNOhttps://video.igem.org/w/7EtsycHDK334ZHhA2kNxwJhttps://video.igem.org/lazy-static/thumbnails/4893a0e5-bab6-4b35-a85b-da2216cb1a37.jpgUCAS-China: FitYo: Customizable Meal Replacement System Based on Synthetic Biology (2022) - Team ...**Title:** FitYo: Customizable Meal Replacement System Based on Synthetic Biology **Description:** FitYo is comprised of two components: the engineered fermentative bacteria and a meal replacement making system. They combine to provide a user-friendly and on-demand nutritional solution for anyone looking for a highly diverse and customizable meal replacement product. Using synthetic biology approaches, we constructed a fermentation system that can be controlled by light and temperature simultaneously, allowing regulated selective production of different compounds. To put our vision into action, we developed a set of hardware and software tools that allowed customers to tailor their meal replacement milkshakes based on their preferred flavors and functions. Furthermore, surveys into various customer groups as well as other human practices activities aided in shaping the design and final aim of our project. Essentially, FitYo supports the notion of healthful eating and free choices, with the goal of providing limitless possibilities for future diets. [Wiki](https://2022.igem.wiki/ucas-china)https://static.igem.org/peertube/streaming-playlists/hls/35f60447-c715-48c1-99c4-bda61f0f4ad2/97673179-37f7-409e-9b34-97986170fa58-master.m3u8https://video.igem.org/videos/embed/7EtsycHDK334ZHhA2kNxwJ839012022-10-19T14:38:52.118ZYES2022 Team PresentationsNOhttps://video.igem.org/w/bLVrAUtXcU2GkxwKdsGbGShttps://video.igem.org/lazy-static/thumbnails/5e94882a-dc0b-48e0-ace3-6203804cbc04.jpgBNDS_China: LySLEUTH: A LysPBC5 based Bacillus cereus detection kit (2022) - Team Presentation [E...**Title:** LySLEUTH: A LysPBC5 based Bacillus cereus detection kit **Description:** The aim of our project is to develop a kit that can detect the presence of a common bacterial pathogen B. cereus, which is present in improperly stored leftover food and could cause digestive disease. Current detection methods including PCR-based tests are expensive and require specialized laboratory equipment. Here, we aim to develop an alternative detection method based on a B. cereus-specific endolysin (LysPBC5), ATP sensor, and the one-HOur Low-cost Multipurpose highly Efficient System (HOLMES). These two systems will be assembled by mixing purified LysPBC5 and Cas12b to form an efficient B. cereus test kit. To lower the cost of protein purification, we employed Pro-QC and crystal violet inducible protein expression system by reducing incomplete transcripts and the cost of inducer. Our design of the test kit could also guide the development of methods to detect other pathogens in the future. [Wiki](https://2022.igem.wiki/bnds-china)https://static.igem.org/peertube/streaming-playlists/hls/57410c02-e6d3-4a49-aae2-5b9deb7bd6ca/940a824b-d338-44de-b352-638f1aced89f-master.m3u8https://video.igem.org/videos/embed/bLVrAUtXcU2GkxwKdsGbGS885022022-10-19T14:50:15.828ZYES2022 Team PresentationsNOhttps://video.igem.org/w/i1xwu2nJHb3eSvVbak1pPshttps://video.igem.org/lazy-static/thumbnails/4169c166-cf2f-401e-a35d-11d7cd672e6f.jpgShanghaiTech_China: Mini Bioproduction Circle System(MBCS) (2022) - Team Presentation [English]**Title:** Mini Bioproduction Circle System(MBCS) **Description:** This year, ShanghaiTech_China developed an autotrophic sustainable multi-microbial production platform named Mini Bioproduction Cycle System (MBSC). We customized the platform for Martian conditions and launched the MBCS-Mars version. In this project, we introduced three microorganisms to build a ternary microbial symbiosis system. By genetic modification, symbiosis was strengthened and stabilized under feedback regulation. Furthermore, a novel Separate-Immobilized fermentation model was proposed to put the multi-microbial system into practical use. The MBCS-Mars is believed to be able to effectively use the atmospheric resources and light energy resources of Mars to continuously produce nutrients for human beings. [Wiki](https://2022.igem.wiki/shanghaitech-china)https://static.igem.org/peertube/streaming-playlists/hls/89bec919-6583-428c-91c5-f4d8263ab3cc/2075efe4-7825-40ef-abfc-3955a1977825-master.m3u8https://video.igem.org/videos/embed/i1xwu2nJHb3eSvVbak1pPs871092022-10-19T15:12:33.382ZYES2022 Team PresentationsNOhttps://video.igem.org/w/opdj3D1GMX72tbdRFqf3ANhttps://video.igem.org/lazy-static/thumbnails/80e934ea-2e68-4a93-8eef-bf3543c8529b.jpgiBowu-China: Extragalin: Manufacturing Astragalin for a Potential Alzheimer's Di... (2022) - Team...**Title:** Extragalin: Manufacturing Astragalin for a Potential Alzheimer's Disease Cure Using Synthetic Biology **Description:** About 10 million Alzheimer's Disease patients are diagnosed in China, the world's largest. Currently no sufficient treatment exists, especially in China, due to lack of effective and affordable drugs. This year, team iBowu-China learned about a plant-based substance, Astragalin, with the potential to be an effective cure. Astragalin is a natural flavonoid compound existing in medicinal plants. The traditional extraction doesn't lead to high enough product quantity and limited its large scale usage with economical availability. We study the bio-synthesis pathway of manufacturing Astragalin using engineered E. coli, expressing a series of plant-originated enzymes in the strains to generate Astragalin from a widely available substrate Naringenin. Experimentally we characterized the production of the enzymes, verified the production of Astragalin and attempted to optimize the production conditions for higher yields. We also conducted creative Education and Science Communication activities to raise social awareness of the Alzheimer's Disease and synthetic biology. [Wiki](https://2022.igem.wiki/ibowu-china)https://static.igem.org/peertube/streaming-playlists/hls/b566be86-073f-472c-bc83-4e5a6fead17a/edaa3d04-8035-4b99-b710-ebe97c34b7cb-master.m3u8https://video.igem.org/videos/embed/opdj3D1GMX72tbdRFqf3AN885012022-10-19T15:24:53.209ZYES2022 Team PresentationsNOhttps://video.igem.org/w/q9ozbFH8taR3hNKVuAM9d3https://video.igem.org/lazy-static/thumbnails/8e669b53-c4fa-429d-b438-6caf28056264.jpgXMU-China: OMEGA (Operable Magic to Effectively Getting over AHPND) (2022) - Team Presentation [E...**Title:** OMEGA (Operable Magic to Effectively Getting over AHPND) **Description:** Shrimp is a delicious seafood favored around the world. However, the threat of acute hepatopancreatic necrosis disease (AHPND) has caused a devastating impact on the shrimp aquaculture industry. AHPND is caused by Vibrio parahaemolyticus carrying pVA1 plasmid. The conventional approaches for preventing and curing AHPND either have limited success, or are unsustainable in the long-term. Also, a rapid detection method is in urgent need. Therefore, XMU-China offers OMEGA. It includes detection, treatment and prevention of AHPND. First, Recombinase Polymerase Amplification technology and cell-free system are employed to detect toxin genes in the water sample. Then engineered outer membrane vesicles (OMVs) are applied to target and deliver plasmids encoding endolysin into the pathogen, treating the disease. For prevention, OMVs with surface displayed receptors are further used to competitively bind to the PirA/PirB, preventing cell damage. CRISPR/Cas system is further utilized to destroy pirA/pirB gene, achieving the virulence loss of Vibrio parahaemolyticus. [Wiki](https://2022.igem.wiki/xmu-china)https://static.igem.org/peertube/streaming-playlists/hls/c3873046-8970-483c-b8f8-e4dcf410fb42/85eeed1e-b0a0-480a-8c98-97c1919bb5df-master.m3u8https://video.igem.org/videos/embed/q9ozbFH8taR3hNKVuAM9d3900052022-10-19T15:19:23.552ZYES2022 Team PresentationsNOhttps://video.igem.org/w/isC8DdYK6j8Um2Y3hFw17Whttps://video.igem.org/lazy-static/thumbnails/47b72782-76df-4673-9d70-61b386f1d3d3.jpgTJUSLS_China: Capsid ripper! Rational designed mutated Proteinase K with ultra t... (2022) - Team...**Title:** Capsid ripper! Rational designed mutated Proteinase K with ultra thermostability at RT **Description:** As a broad spectrum protease, Proteinase K has extremely high enzyme activity and extensive substrate specificity, which is widely used in various fields. Proteinase K is used in nucleic acid extraction to degrade the protein and promote the release of nucleic acid. However, its easy self-degradation and poor stability at room temperature limit its large-scale application. Supported by extensive computer modeling, we applied a series of rational protein engineering strategies to rationally design Proteinase K to enhance its stability. A variety of software and modeling methods including autodock vina and gromacs were used to superimpose and screen multiple mutation points, experimental verification was carried out in the laboratory. Our project makes it possible to use and transport Proteinase K at room temperature, and greatly reduces the cost of using Proteinase K. We are actively seeking commercialization possibilities to expand the impact of our projects and bring benefits to more people. [Wiki](https://2022.igem.wiki/tjusls-china)https://static.igem.org/peertube/streaming-playlists/hls/8d62f654-6059-45f9-b7f5-6df1af3a3332/7ab4be7c-fc54-4865-965e-a100d55c483d-master.m3u8https://video.igem.org/videos/embed/isC8DdYK6j8Um2Y3hFw17W899052022-10-19T15:28:06.942ZYES2022 Team PresentationsNOhttps://video.igem.org/w/rUKsTivQUK7p9MYU2538Lohttps://video.igem.org/lazy-static/thumbnails/e9e90b99-9a09-463d-83c2-a7c7f4661de5.jpgJLU_China: OlfacMood (2022) - Team Presentation [English]**Title:** OlfacMood **Description:** Facing the negative emotions of sadness and anxiety, our project aims to combine Artificial Intelligence with synthetic biotechnology to construct an emotion recognition and regulation device. In the recognition part, we use Convolutional Neural Network for facial emotion recognition,smart bracelet to record heart rate,and finally multimodal emotion judgment through software. In the regulation part, we focus on the sadness emotion, identify the judgment and start the blue light signal, thus stimulating E. coli EL222 photosensitive protein, initiating KdcA and Adh1 to catalyze the synthesis of PPA into phenylethyl alcohol, and releasing it through the aromatherapy system to achieve the emotional calming. Based on the overall closed loop, we further explored more extensions of light sources and emotion regulation, such as anxiety recognition into red light initiation and release of linalool regulation. Also extended such as music, light multi-sensory functions, in order to better assist the odor emotion regulation. [Wiki](https://2022.igem.wiki/jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/d1d1ed8a-291b-4699-8352-e358c8a1ce3a/cea1693f-b664-40dc-8ec7-ae48f420da97-master.m3u8https://video.igem.org/videos/embed/rUKsTivQUK7p9MYU2538Lo889062022-10-19T15:33:40.011ZYES2022 Team PresentationsNOhttps://video.igem.org/w/9Pew6DzaqwdLTirTzSW3s3https://video.igem.org/lazy-static/thumbnails/c7b2a517-5e4a-44dd-9bf5-39899c37197b.jpgCHINA-FAFU: Microalgae Growing,Water Clearing (2022) - Team Presentation [English]**Title:** Microalgae Growing,Water Clearing **Description:** Taking the climate and water ecology environment into consideration, our project chooses Phaeodactylum tricornutum as the research subject. By constructing engineered algae strains through synthetic biology methods, we improve its carbon sequestration capacity as well as nitrogen and phosphorus absorption capacity to alleviate the current environmental problems.Meanwhile, increase the content of high economic value components, such as oil and fucoxanthin. Our team always adhere to the concept of sustainable development. While working on water ecology restoration and climate improvement, we also try to popularize environmental protection knowledge and concepts to the public in multiple ways. And expect more people to participate in environmental protection and environmental restoration. [Wiki](https://2022.igem.wiki/china-fafu)https://static.igem.org/peertube/streaming-playlists/hls/476165d6-4192-4a2f-9533-52fec95e8f9e/212fe895-e469-444b-8ae6-d0dba6bc7e17-master.m3u8https://video.igem.org/videos/embed/9Pew6DzaqwdLTirTzSW3s390002492022-10-19T16:16:44.635ZYES2022 Team PresentationsNOhttps://video.igem.org/w/1mE2gwan6U8b2sNf6hXY68https://video.igem.org/lazy-static/thumbnails/ff2c9cbe-0b59-41fa-b6e5-a8af1bc5fe06.jpgCAU_China: COM ON!: Protect stone relics by calcium oxalate monohydrate film (2022) - Team Presen...**Title:** COM ON!: Protect stone relics by calcium oxalate monohydrate film **Description:** Cultural relics are the heritage of human civilization. Open-air stone cultural relics, exposed outdoors for a long time, are susceptible to weathering damage. Nevertheless, parts of Lingyin Temple, a temple built from stone more than 1,000 years ago, are still intact due to the presence of natural calcium oxalate protective film. Inspired by this instance, CAU_China plan to use Bacteria-Induced Mineral Precipitation (BIMP) to replicate this protective film, by engineering Pseudomonas fluorescens to make it produce oxalic acid and consequently form a dense calcium oxalate monohydrate (COM) protective film with the assistance of EPS. The realization of this technique will be a historical advance in the protection of stone relics, and will be the well-being of all cultural heritage stakeholders, present and future. [Wiki](https://2022.igem.wiki/cau-china)https://static.igem.org/peertube/streaming-playlists/hls/02e24ea4-b3b0-4d1d-b7b2-7b1d78caab41/ae17a64a-030a-4756-b897-326aba33bf28-master.m3u8https://video.igem.org/videos/embed/1mE2gwan6U8b2sNf6hXY68892072022-10-19T16:19:35.420ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qXmgbg1fwpDciCL2pvfsKJhttps://video.igem.org/lazy-static/thumbnails/398c2562-d520-4c56-831a-4891d7126d57.jpgDKU_China: Synthetic Biological Whole-Cell Biosensors: A Rising New Method for P... (2022) - Team...**Title:** Synthetic Biological Whole-Cell Biosensors: A Rising New Method for Pollution Detection **Description:** Heavy metal pollution poses a major threat to human health nowadays. Their wide distribution and high concentrations in the environment amount to a time bomb for public health. However, conventional heavy metal testing methods have their current problems such as low cost-efficacy, low efficiency, non-environmental-friendliness, etc. We, Team DKU_China, aim to tackle this challenge by propelling the development of a rising new method for pollution detection: synthetic biological whole-cell biosensors. Our project is focused on the detection of copper in water to set an example and facilitate future research on the detection of other heavy metals. To achieve our goal, we created a biosensor with improved accuracy and sensitivity using high-throughput technologies, compared to traditional methods. We hope our efforts can help whole-cell biosensors become more widely accepted and applied in heavy metal detection. We envision a future with a world cleaner and greener than ever [Wiki](https://2022.igem.wiki/dku-china)https://static.igem.org/peertube/streaming-playlists/hls/ca15b8cd-a182-4afb-97fc-3cb11d8d3030/ef6741ef-9094-4638-9ee4-dbf22e8bb573-master.m3u8https://video.igem.org/videos/embed/qXmgbg1fwpDciCL2pvfsKJ853012022-10-19T16:44:41.247ZYES2022 Team PresentationsNOhttps://video.igem.org/w/w6Xpgk7KxvGPku8DaE1pvzhttps://video.igem.org/lazy-static/thumbnails/6c2bc778-d4d9-47d0-8cc3-ee9b5585168f.jpgNJU-China: Treatment of Alopecia by Genetically Engineered Small Extracellular V... (2022) - Team...**Title:** Treatment of Alopecia by Genetically Engineered Small Extracellular Vesicles (sEV) **Description:** Alopecia is a skin disorder occurs in a wide population, often causing damaging psychological consequences. The NJU-China iGEM team chose to focus on androgenetic alopecia (AGA), which exhibits the highest prevalence. Current drugs on the market for treating AGA produce unstable results and cause various side effects. Our team began with a comprehensive study of its molecular mechanism then selected several genetic targets. Our goal was to develop a drug with minimal side effects, stable results, and ease of use. On the one hand, we applied RNAi technique and mRNA embedding elements to regulate gene expression particularly. On the other hand, we used sEV (extracted by Tangential Flow Filtration and bind-elute size exclusion chromatography) and microneedles to carry and deliver siRNA and mRNA to follicle cells. Furthermore, apart from AGA, our research may also pave the way for an sEV-mediated systemic delivery platform of therapeutic cargo for other dermatologic diseases. [Wiki](https://2022.igem.wiki/nju-china)https://static.igem.org/peertube/streaming-playlists/hls/f3c70552-e2d7-4e24-a1bf-e3dd1a1feeaf/918cc170-954d-449a-bc97-9f28f92c2a80-master.m3u8https://video.igem.org/videos/embed/w6Xpgk7KxvGPku8DaE1pvz880032022-10-19T16:49:51.857ZYES2022 Team PresentationsNOhttps://video.igem.org/w/nYK4jRZsi2V3J3oxAAsKsyhttps://video.igem.org/lazy-static/thumbnails/80d2c8c9-5928-4389-89ff-75aa6eb20520.jpgSCU-China: ERYbiotic (2022) - Team Presentation [English]**Title:** ERYbiotic **Description:** Engineered probiotics are the next-generation biotherapeutics that are edited to target specific diseases. However, there are no reasonable solutions to several problems, such as colonization failure, low population density, and irregular expression of exogenous genes in vivo. Therefore, we designed an engineered probiotic platform based on the sugar substitute erythritol in order to solve the problems mentioned above. We introduce erythritol breaking down gene clusters and providing an exclusive metabolic niche in probiotics. When supplemented with erythritol stably in the diet, engineered probiotics will increase population density and colonization time in the intestinal microbiome. In addition, we precisely characterized the promoter of ery operon model, building an erythritol-induced regulatory system. Except for the platform, we introduced an erythritol utilization pathway downstream to synthesize small therapeutical molecules such as pyrroloquinoline quinone and L-erythrulose, giving this platform more therapeutical functions. [Wiki](https://2022.igem.wiki/scu-china)https://static.igem.org/peertube/streaming-playlists/hls/b1fc1916-b76c-4511-ac74-299233298d40/8f976580-0873-443f-b903-a445a780c403-master.m3u8https://video.igem.org/videos/embed/nYK4jRZsi2V3J3oxAAsKsy896022022-10-19T17:02:01.223ZYES2022 Team PresentationsNOhttps://video.igem.org/w/n7hmMRmARCLn3HeswA1j9jhttps://video.igem.org/lazy-static/thumbnails/d3aa59f0-4721-4749-af97-c33d53bea51c.jpgSZU-China: RiceAide- A Comprehensive Solution to Rice Sheath Blight Based on RNA... (2022) - Team...**Title:** RiceAide- A Comprehensive Solution to Rice Sheath Blight Based on RNAi Pesticide **Description:** Rice sheath blight is a fungal disease due to the infection of Rhizoctonia solani (R.solani) and is one of the most serious diseases of rice with the highest incidence and resulting in 6 billion kilograms of rice yield reduction every year in China. This year, we developed a comprehensive solution, which was integrated from three strategies functioning on prevention, detection and treatment of R.solani respectively. To prevent the infection of R.solani, we cut off the water and air transmission routes of R.solani, by using biocontrol fungi - Trichoderma atroviride. For the early detection of rice sheath blight, we developed LAMP and E-nose detection systems. And we also developed stabilized RNAi effector molecules binding with nanomaterials to specifically inhibit and kill R.solani. In brief, we hope to build an efficient and comprehensive system, thereby contributing our strength to the prevention and control of rice sheath blight. [Wiki](https://2022.igem.wiki/szu-china)https://static.igem.org/peertube/streaming-playlists/hls/aaf074ab-3491-422e-a305-d155a32c2f4a/1e3dbb41-080c-40c5-9d45-70522c66bf92-master.m3u8https://video.igem.org/videos/embed/n7hmMRmARCLn3HeswA1j9j882092022-10-19T17:05:12.051ZYES2022 Team PresentationsNOhttps://video.igem.org/w/e9SMBhgTKykHUSjkQ4er6ohttps://video.igem.org/lazy-static/thumbnails/54479cea-c356-4c23-b260-b09eaf95a025.jpgXJTU-China: An environmentally friendly bio-fertilizer-Controllable production a... (2022) - Team...**Title:** An environmentally friendly bio-fertilizer-Controllable production and release of herbicide and exopolysaccharides by engineered bacteria **Description:** We provide an environmentally friendly bio-fertilizer, attempting to solve the problems caused by the widespread use of chemical herbicides by synthetic-biology. An engineered E. coli is constructed with the ability to produce a novel herbicide- aspartic acid and exopolysaccharides(EPS) under blue-light, and to controllably release them into soil triggered by heat, which will avoid excessive use and possible residue of herbicide, also promote water conservation and sand fixation by EPS. Our system consists of a precursor plasmid that converts the glucose to the key precursor GPP, and multiple functional plasmids with the ability to synthesize herbicide and EPS under the control of blue-light. Meanwhile, our engineered cells will release herbicide and EPS with the expression of a lysis gene under a higher temperature above 42oC. About 10% of the bacteria will escape the lysis procedure and recover, promoting a new round of controllable production and release of herbicide and EPS. [Wiki](https://2022.igem.wiki/xjtu-china)https://static.igem.org/peertube/streaming-playlists/hls/6a840d0a-666b-402a-86bc-3c9b91d87cb4/b283f766-4205-4035-9a40-60e819f73fd2-master.m3u8https://video.igem.org/videos/embed/e9SMBhgTKykHUSjkQ4er6o898022022-10-19T17:10:13.198ZYES2022 Team PresentationsNOhttps://video.igem.org/w/wjH1gZPHcWqM4MdUZU8DjLhttps://video.igem.org/lazy-static/thumbnails/e226f7d4-a2ca-4f07-9c42-7f1103bb7827.jpgFujian_United: Heavy metal detection (2022) - Team Presentation [English]**Title:** Heavy metal detection **Description:** With the development of industry and human activities, a large number of metal ions are released. Many of these metal ions, such as cadmium, chromium, and mercury, are enriched in the food chain and often cause many hazards to local ecosystems and human health. This project will establish a broader and cheaper rapid detection technology to reduce the intake of undesirable metal ions in the human body. In this project, by constructing recombinant plasmids ArsD, ArsR, and ArsA using Escherichia coli and Bacillus metal-responsive promoters, the sensitivity of biosensors is detected by the intensity of fluorescent signal, and the concentration of metal ions in the sample is displayed. This project can be used to detect heavy metals, provide warnings to people, and reduce the health damage to the human body. Key Words: heavy metal, biosensor [Wiki](https://2022.igem.wiki/fujian-united)https://static.igem.org/peertube/streaming-playlists/hls/f58ed157-4739-4f93-bc7b-19488003eb6c/a3065c35-84bc-4397-a256-2fb74247a792-master.m3u8https://video.igem.org/videos/embed/wjH1gZPHcWqM4MdUZU8DjL806062022-10-19T17:36:12.442ZYES2022 Team PresentationsNOhttps://video.igem.org/w/vW897oM2H54m1EZcx21YMwhttps://video.igem.org/lazy-static/thumbnails/32d4e1d8-9948-4262-84df-42b5442b854b.jpgBIT-China: Oxygen Hunter (2022) - Team Presentation [English]**Title:** Oxygen Hunter **Description:** The production of chemical products by synthetic biology has become more and more advantageous than traditional chemical synthesis. Many enzymes used in biosynthsis need to be isolated from oxygen while microbial respiration cannot produces energy without oxygen. At present, physical means are mainly used to infuse nitrogen to create a hypoxic environment, which cannot meet all application scenarios. Therefore, this year, BIT-China team was committed to creating an intracellular hypoxic environment at normal metabolic levels of microorganisms, using Escherichia coli to express functional elements for introducing synthesis modules to promote product efficiency. In addition, we also built an easy-to-use toolbox for BP neural network prediction to facilitate future practitioners to model. [Wiki](https://2022.igem.wiki/bit-china)https://static.igem.org/peertube/streaming-playlists/hls/f26795b5-431b-4c25-8606-8d3d6cf67ee0/d2055c07-58f3-4e4a-a40c-187ab35e4a08-master.m3u8https://video.igem.org/videos/embed/vW897oM2H54m1EZcx21YMw1180012022-10-19T17:33:59.787ZYES2022 Team PresentationsNOhttps://video.igem.org/w/82Y4CdCXwP7Hhhvcn2hhUqhttps://video.igem.org/lazy-static/thumbnails/0f68eb34-be65-4506-a97a-904d4fdab15c.jpgPUMC_CHINA: Unsupervised lineage clustering for revealing expression patterns to... (2022) - Team...**Title:** Unsupervised lineage clustering for revealing expression patterns toward EMT of HCC **Description:** The single-cell RNA sequencing (scRNA-seq) technology provides a powerful tool for dissecting heterogenous tumor tissue at single cell resolution. However, it still remains challenging to reconstruct cell differentiation dynamics on the expression spectrum. Here, we develop a new method combining lineage clustering and generalized additive model (GAM). Validating this method on hematopoietic cell lineage and real hepatocellular carcinoma (HCC) samples, we find our method have a greater potential to build differentiation pseudotime with a higher resolution. We also find that enrichment of specific lineage and differential expression patterns are associated with worse clinical outcomes. Combining theses together, we believe our method could provide better a tool for studying heterogenous biopsies such as tumor. [Wiki](https://2022.igem.wiki/pumc-china)https://static.igem.org/peertube/streaming-playlists/hls/38f6439d-d7c5-4aee-8a1f-d50da63bdd10/5dcf10c7-4725-4844-b7b4-27ba1d8bacc7-master.m3u8https://video.igem.org/videos/embed/82Y4CdCXwP7Hhhvcn2hhUq774032022-10-19T17:44:21.920ZYES2022 Team PresentationsNOhttps://video.igem.org/w/qMGhXSggDqFC6T79yFLPrShttps://video.igem.org/lazy-static/thumbnails/7c37f7b9-2a7d-472d-9ef2-293c09e5bd84.jpgBUCT: ACE.hair: 2-phenylethyl Alcohol, Caffeine and E. coli used to create healt... (2022) - Team...**Title:** ACE.hair: 2-phenylethyl Alcohol, Caffeine and E. coli used to create healthy hair-growth environment **Description:** The scalp microenvironment suffers from a variety of irritations, for which hair loss become a common and distressing symptom. Most functional hair products don't stay on the scalp for more than 30 seconds. We might as well call them cleansing products. In addition, a growing number of people believe that scalp health is closely related to hair growth. Our new idea is to use probiotics to achieve continuous scalp care. E. coli Nissle 1917, engineered by BUCT, consumes aliphatic acids or fatty acids which are one of the main causes of microbial growth and low hair density to improve scalp microenvironment. Not only can E. coli stay on the scalp well, but probiotics which synthesize hair growth factors can also promote hair growth. Perfume molecule 2-phenylethyl alcohol is also produced to improve the smell of sebaceous glands and make hair full of fragrance. [Wiki](https://2022.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/c8bca0ec-55b8-4714-95df-f11e3dfb2dc8/4048a334-02f5-4c58-9f43-e6ff67e24784-master.m3u8https://video.igem.org/videos/embed/qMGhXSggDqFC6T79yFLPrS600042022-10-19T18:02:25.198ZYES2022 Team PresentationsNOhttps://video.igem.org/w/hAvnVY5Sn4eubGUpsa9BX8https://video.igem.org/lazy-static/thumbnails/a49295d5-ada0-4fb8-ad11-cb94cc9c3d91.jpgOUC-China: DISP-Directional Intelligent Screening Platform (2022) - Team Presentation [English]**Title:** DISP-Directional Intelligent Screening Platform **Description:** Nowadays, strain quality has become a major factor limiting the yield of fermentation industry. The engineering bacteria degenerate into wild-type due to mutation or some unknown endogenous regulation. They have more growth advantages than the production engineering bacteria and gradually occupy resources to become the dominant species. The production genes introduced into the engineering bacteria are copied and lost in the process of DNA replication during cell proliferation. At the same time, some products accumulate in the engineering bacteria, which has a negative feedback regulation effect on the production of enzymes. Moreover, the extraction process of the products by breaking the engineering bacteria is very complicated. We plan to design a software and hardware platform that automatically regulates the production and screening of strains to extract product simply to ensure high-quality strains and improve the fermentation yield. [Wiki](https://2022.igem.wiki/ouc-china)https://static.igem.org/peertube/streaming-playlists/hls/86639c94-b85e-4c2a-bf9a-6d6c954ff739/40b3c99a-248d-44d5-a73b-9550676bcb05-master.m3u8https://video.igem.org/videos/embed/hAvnVY5Sn4eubGUpsa9BX8883002022-10-19T18:12:10.533ZYES2022 Team PresentationsNOhttps://video.igem.org/w/gQMMvNTeRbGeqkSoXNCpSHhttps://video.igem.org/lazy-static/thumbnails/5df535f8-7192-4ca0-bd1e-10e52ba1b157.jpgRBHS_SanDiego_CA: Modeling Pteris Vittata s Arsenic Sequestration Mechanism (2022) - Team Present...**Title:** Modeling Pteris Vittata s Arsenic Sequestration Mechanism **Description:** Our project is to model an important part of Pteris Vittata s fern sequestering mechanism in order to evaluate the feasibility of implementing it in other plants for phytoremediation as a way to tackle the issue of arsenic toxicity. Pteris Vittata, also known as the Chinese Brake Fern, is an arsenic hyperaccumulator that absorbs arsenic from the soil and transfers it from root to shoot for sequestration in vacuoles. Our model consists of three critical enzymes: PvARC2, PvPHT1;3, and PvACR3. Arsenic, when in the form of arsenate, travels through PvPHT1;3, which is a phosphate transporter in the cell membrane, into the cytosol of the cell. After that, PvACR2, a reductase in the cytosol, reduces the arsenate to arsenite; PvACR3, an antiporter, then induces arsenic sequestration in the vacuoles. By modeling this arsenic sequestering mechanism, our goal is to provide a solution for arsenic contamination in the environment. [Wiki](https://2022.igem.wiki/rbhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/8048ff27-988c-40a6-9058-6eefcb529319/675096b6-3ea5-426f-8af4-eeee4f5dc717-master.m3u8https://video.igem.org/videos/embed/gQMMvNTeRbGeqkSoXNCpSH898022022-10-19T18:14:43.855ZYES2022 Team PresentationsNOhttps://video.igem.org/w/o8dU12iAtdnkoE376xTzr6https://video.igem.org/lazy-static/thumbnails/13db69c9-29c4-437e-8824-dab2a1876f58.jpgRS_Joint_China: The Devourer: Project-Realising the efficient absorption of lead... (2022) - Team...**Title:** The Devourer: Project-Realising the efficient absorption of lead ions in soil. **Description:** Lead is causing severe pollution. It has a negative impact on normal agricultural and forestry production, and crops contaminated by heavy metals can lead to diseases that threaten human s health. No obvious solution has yet been proposed. Our project is designed to solve this issue by extracting the PtoMYB46, sequence of genes that is proved to have the function of absorbing the lead ions in previous detection, and converting it into poplars genes. We firstly extracted genes from the poplars' DNA and amplified the target genes using PCR technique after the detection of its purity and concentration. The cloning vector and expressing vectors were constructed in the second step. Finally, we transferred the gene to the agrobacteria to infect the poplars' leaves. The transgenic poplar improved and perfected the function of absorbing lead ions in poplar. We use directed evolution to further perfect tne function of genes. [Wiki](https://2022.igem.wiki/rs-joint-china)https://static.igem.org/peertube/streaming-playlists/hls/b32b3466-f981-4229-8f1c-3a1ad17b3edb/2264eeaf-2bb5-4a78-ad48-9ce1be835274-master.m3u8https://video.igem.org/videos/embed/o8dU12iAtdnkoE376xTzr6611022022-10-19T18:19:20.464ZYES2022 Team PresentationsNOhttps://video.igem.org/w/aANv2MsYXwxwQnHD7G93CHhttps://video.igem.org/lazy-static/thumbnails/1147a119-4e69-41ce-ba35-6371b28cf9f3.jpgUFlorida: In-Vitro Analysis of Lentiviral Vectors with a CRISPR-Cas9 Complex to ... (2022) - Team...**Title:** In-Vitro Analysis of Lentiviral Vectors with a CRISPR-Cas9 Complex to Target EGFRvIII Receptor in GBM **Description:** Glioblastomas are fast-growing and aggressive tumors which can lead to an array of fatal symptoms. Their morphological features, including thread-like tendrils that mesh themselves within the brain s tissue, make them almost impossible to surgically resect. Although current treatment plans include various surgical and chemical procedures, the prognosis for these treatments remains cumbersome. To address this issue, we ve aimed genetically modify a second-generation lentivirus coupled with a CRISPR-Cas9 Exon containing-complex to target and reverse an in-frame deletion of the EGFR gene that results in the loss of the ability of the cell to properly regulate proliferation. Ultimately, this may lead to the development of cancerous cells within the brain. In addition, we troubleshooted and created a detailed user guide for an sgRNA prediction software created by GunnVistaPingry_US in 2020. By reintroducing these missing exons to the genome via our lentiviral vector, we hope to introduce a novel treatment for GBM. [Wiki](https://2022.igem.wiki/uflorida)https://static.igem.org/peertube/streaming-playlists/hls/4dbe316e-56bc-4a65-9d31-132c172d7ad9/de53577e-69e8-45ed-bf5f-30f1b6a4a287-master.m3u8https://video.igem.org/videos/embed/aANv2MsYXwxwQnHD7G93CH895012022-10-19T19:18:33.274ZYES2022 Team PresentationsNOhttps://video.igem.org/w/dpzVwaF7GtA1P4ZxfhWtryhttps://video.igem.org/lazy-static/thumbnails/02cc49c4-e633-4cf0-92bb-d7c9ab5c019f.jpgNJTech_China: Engineering PerR as a switch for the evolution of defenses against... (2022) - Team...**Title:** Engineering PerR as a switch for the evolution of defenses against oxygen in obligate anaerobes **Description:** In the distant future, explorers may terraform another planet from anaerobic to aerobic to provide appropriate soil conditions and environments for humanity during interstellar voyages, and the changes of oxygen condition will require engineered soil modification bacteria to perform in both anaerobic and aerobic environments. In our project, obligate anaerobe Clostridium tyrobutyricum was used as an aerobically modified chassis to explore ways to achieve that goal. Peroxide response regulator, PerR, acting as a key regulator of the molecular oxygen and reactive oxygen species detoxification in Clostridium species, has been proven critical in bacterial oxidation sensitivity. Our project aims to enhance the oxidative-stress tolerance of C. tyrobutyricum via engineering PerR regulator. The perR gene was deleted and then overexpressed under microaerobic induced promoters like Pvgb. Then, several promoter engineering strategies were employed to achieve the fine regulation of PerR expression. [Wiki](https://2022.igem.wiki/njtech-china)https://static.igem.org/peertube/streaming-playlists/hls/6478ad20-495a-403f-8b48-2c5f6733ce06/f23cda0a-ec7f-4871-8735-4b19e7a308b0-master.m3u8https://video.igem.org/videos/embed/dpzVwaF7GtA1P4ZxfhWtry854012022-10-19T19:42:28.939ZYES2022 Team PresentationsNOhttps://video.igem.org/w/gQMVhGtmLH4LTwAjUeCaUWhttps://video.igem.org/lazy-static/thumbnails/79f32569-6bd3-4af7-9f65-da7d784859d0.jpgCSU_CHINA: Diagnosing Circulating Cell-free DNA of echinococcosis through multi-... (2022) - Team...**Title:** Diagnosing Circulating Cell-free DNA of echinococcosis through multi-sgRNA bulletin using CRISPR-Cas12a **Description:** Our diagnostic system for parasitic diseases will test a person's Circulating cell-free DNA (cfDNA) in their blood to see if they are infected with the parasite. We used the multi-primers Recombinase Polymerase Amplification RPA to amplify cfDNA. Then the amplification product and multi-sgRNA were used to activate the trans-cleavage activities of CRISPR-Cas12a system, cut the nucleic acid probe we designed and synthesized. Finally, the colloidal gold test strips were used to detect the cut product. [Wiki](https://2022.igem.wiki/csu-china)https://static.igem.org/peertube/streaming-playlists/hls/8049144c-f307-4d2b-9849-4d6eba0b17b2/b0c74442-184f-429f-8eb3-c29b870b2b93-master.m3u8https://video.igem.org/videos/embed/gQMVhGtmLH4LTwAjUeCaUW724022022-10-19T19:46:52.939ZYES2022 Team PresentationsNOhttps://video.igem.org/w/4JD1PbSevd4SYhZZTW5n3phttps://video.igem.org/lazy-static/thumbnails/bc57b23a-64b3-4e42-98ce-5a97b8774ce8.jpgSZ-SHD: CanFix-Light Controlled Oral Tumor Vaccines (2022) - Team Presentation [English]**Title:** CanFix-Light Controlled Oral Tumor Vaccines **Description:** We develop a live oral cancer vaccine by modifying E coli to secrete recombinant OMVs containing antigenic proteins that stimulate the immune system to provide cancer immunity. Our aim was specifically to stimulate immune cells in the intestines. To create this level of specificity we incorporated the SulAp optogenetic promoter and a micro-swallowable auto-positioning capsule UVC light source which we trained to recognize that it is in the right location by utilizing a convolutional neural network exposed to a large dataset of endoscopic video footage.And a self-lysis system based on arabinose induction was designed to remove the modified bacteria from the body after completion of OMV secretion. [Wiki](https://2022.igem.wiki/sz-shd)https://static.igem.org/peertube/streaming-playlists/hls/1e3f770b-db62-400f-807a-07f6accc081f/0a5f5131-48d0-4bed-ad51-3e9f2d7b5bc8-master.m3u8https://video.igem.org/videos/embed/4JD1PbSevd4SYhZZTW5n3p827062022-10-19T20:09:41.733ZYES2022 Team PresentationsNOhttps://video.igem.org/w/ehTF4KpvYYRMTbEKY22mDUhttps://video.igem.org/lazy-static/thumbnails/bde212ad-9100-47b4-9c79-79c752a70119.jpgHS_China: Good news for lactose intolerant patients (2022) - Team Presentation [English]**Title:** Good news for lactose intolerant patients **Description:** Lactose intolerance is a prevalent issue that cannot be overlooked. As much as 75% of the world s human population is intolerant to ingested dietary lactose. We decided to use E. coli Nissle 1917 (EcN) as our chassis and make it synthesize -galactosidase (lacZ) with a secretory signal peptide, which can effectively prevent lactose uptake by EcN. Second, we plan to use enteric-coated pills to contain the freeze-dried bacteria for ingestion which helps the bacteria bypass the chemical barrier the gastric acid imposes and ensures safe transport to the intestines. Third, we aim to create a protective film using CAP (capsular polysaccharides surrounding) to ensure that the bacteria safely implant themself in the intestinal environment without damage. The CAP helps the bacteria adapt to a wider range of temperature and pH, shuts out harmful chemicals and toxins, as well as assisting them to stick to the intestinal walls. [Wiki](https://2022.igem.wiki/hs-china)https://static.igem.org/peertube/streaming-playlists/hls/6ba28c3f-7033-4eab-b040-eb3a9d75815e/ceeb4508-a68a-4321-969d-78bc65313394-master.m3u8https://video.igem.org/videos/embed/ehTF4KpvYYRMTbEKY22mDU865032022-10-19T20:15:54.201ZYES2022 Team PresentationsNOhttps://video.igem.org/w/tyU27RTRhQkZ5p3KcUsxYqhttps://video.igem.org/lazy-static/thumbnails/40370f7c-da84-4e6a-b40d-87eacd57fbcb.jpgNJMU-China: Engine of Starlight: Treating ASD through alleviating mitochondrial ... (2022) - Team...**Title:** Engine of Starlight: Treating ASD through alleviating mitochondrial dysfunction **Description:** Autism spectrum disorder (ASD) is a neurodevelopmental disorder with an estimated incidence of 1 percent worldwide, and no current medication proved effective for its treatment. Emerging evidence has indicated that mitochondrial dysfunction plays a key role in the development of ASD. Our project, Engine of Starlight, aims at alleviating mitochondrial dysfunction to treat ASD and comprises three systems that go from assessment to treatment. The first is a biosensor sensitive to lactic acid levels for mitochondrial dysfunction detection, while the other two are probiotics engineered to alleviate mitochondrial dysfunction by increasing NAD+ expression and preventing heavy metal accumulation in cells. We have successfully verified their function and further developed the delivery technique for intestinal colonization. Meanwhile, engineering iteration is conducted in interaction with our human practices, and we were also able to promote the implementation of the project with the support of hardware and software. [Wiki](https://2022.igem.wiki/njmu-china)https://static.igem.org/peertube/streaming-playlists/hls/df3e9a3c-28fe-4b37-81a5-95300a24de14/42be76b6-e34e-424c-879f-49ab19fd970e-master.m3u8https://video.igem.org/videos/embed/tyU27RTRhQkZ5p3KcUsxYq8790172022-10-19T20:37:02.941ZYES2022 Team PresentationsNOhttps://video.igem.org/w/ep637BNn7sj9EKMUxCuudXhttps://video.igem.org/lazy-static/thumbnails/94455a97-4e22-4a8d-a4de-6accadb33c6c.jpgLINKS_China: UV-PRISMA: UltraViolet radiation Protection and skin Repairing by I... (2022) - Team...**Title:** UV-PRISMA: UltraViolet radiation Protection and skin Repairing by Innovative Sunscreen with Mycosporine-like Amino acids **Description:** UV-radiation damages our skin, causing sunburn, inflammation and skin aging. Mycosporine-like amino acids (MAAs) are natural products produced by various marine organisms such as cyanobacteria and algae, able to absorb UV radiation. However, the low rate of MAA production limits the potential of commercializing MAAs as sunscreen ingredient. This year, LINKS_China engineered Saccharomyces cerevisiae to produce three MAAs shinorine, porphyra-334 and palythine and another UV-absorbing molecule, gadusol. We incorporated enzymes from Nostoc punctiforme, Nostoc linckia and Actinosynnema mirum to structure the optimal pathway, and introduced the xylose metabolism pathway to increase yield. These yeast products has successfully absorbed UV radiation, covering most UVA and UVB rays. For skin repairing, we introduced superoxide dismutase and catalase to remove reactive oxidative species produced in the skin. UV-PRISMA, our MAA-based sunscreen product, will bring a healthier, gentler, and more environmentally friendly way of UV protection. [Wiki](https://2022.igem.wiki/links-china)https://static.igem.org/peertube/streaming-playlists/hls/6c80035b-54a3-4985-9b4d-278a012a185f/5817ca8c-8825-4cf1-b93c-33757cd048ab-master.m3u8https://video.igem.org/videos/embed/ep637BNn7sj9EKMUxCuudX872062022-10-19T20:45:04.307ZYES2022 Team PresentationsNOhttps://video.igem.org/w/jawQ4uaNcrrGFqZ69hwUXuhttps://video.igem.org/lazy-static/thumbnails/6dab90ab-5f8d-46f5-9c85-a413bb3587ed.jpgJiangnan-China: Construction of acid-tolerant Escherichia coli chassis cells bas... (2022) - Team...**Title:** Construction of acid-tolerant Escherichia coli chassis cells based on membrane key factor CFAs from extremophiles Acidithiobacillus caldus **Description:** Acid stress conditions are frequently encountered during industrial fermentation as a consequence of the accumulation of acidic metabolites, which calls for more efficient and cost-effective acid-tolerant strains. However, bioleaching microbes have such superb acid resistance that they can thrive in the extremely acidic environment of bioleaching solution. Acidithiobacillus caldus shows the most outstanding ability to resist acid stress. Through a series of literature review and previous experiment, we studied cyclopropane fatty acid synthase (CFAs) gene, the core acid-resistant element of A. caldus, and designed a promoter modification strategy, which was successfully applied in E. coli to improve the acid resistance of chassis cells. In addition, our Hidden Markov Model (HMM) can help to identify 38 dependent promoters in different strains. [Wiki](https://2022.igem.wiki/jiangnan-china)https://static.igem.org/peertube/streaming-playlists/hls/93193049-9f3f-4e0a-b4dd-5e340681e252/53ec4acb-ed5b-49c9-b5ac-399b886411e6-master.m3u8https://video.igem.org/videos/embed/jawQ4uaNcrrGFqZ69hwUXu1105042022-10-19T20:51:17.988ZYES2022 Team PresentationsNOhttps://video.igem.org/w/rJax6a6gCum2aFk8VSmVeqhttps://video.igem.org/lazy-static/thumbnails/ea6da90b-b09e-47e1-84c6-f8d1833e2dcc.jpgHUS_United: A new type of biological parts: degradation-tuning RNAs (2022) - Team Presentation [E...**Title:** A new type of biological parts: degradation-tuning RNAs **Description:** Enhancing gene expression is vital for downstream applications such as biosynthesis of valuable chemicals or manipulating behaviors of designed gene circuits against intrinsic noise. The traditional means is to adopt promoters with higher activity to increase the inflow of mRNA and protein translation, which inevitably increases metabolic pressure for the chassis, thus limiting the scale and complexity of artificial biological circuits. Instead of increasing gene expression, we seek to modulate the degradation rate of mRNA by degradation-tuning RNAs (dsRNAs) on the 5 UTR region of the mRNAs, which function by promoting or inhibiting the attack from endogenous RNases. It allows us to enhance protein expressions without posting an extra metabolic burden to the host, and we introduce these functional structures on mRNA to synthetic biology as a new type of standard biological parts. [Wiki](https://2022.igem.wiki/hus-united)https://static.igem.org/peertube/streaming-playlists/hls/d05794e4-edff-4aae-b29e-1225ce50f61e/7da4f39f-fcd1-4a4c-a88a-c23a7c8dea72-master.m3u8https://video.igem.org/videos/embed/rJax6a6gCum2aFk8VSmVeq967002022-10-19T20:55:45.775ZYES2022 Team PresentationsNOhttps://video.igem.org/w/xrBzxc9zHTXH1jmgL4koJChttps://video.igem.org/lazy-static/thumbnails/14225f26-2425-4d9e-9553-08e30adf6fc5.jpgZJUT-China: Heathy teeth legion Oral guardians for targeted detection and elimin... (2022) - Team...**Title:** Heathy teeth legion Oral guardians for targeted detection and elimination of Streptococcus mutans **Description:** Oral problems are widespread among people of different ages. Most oral problems can be preventable and treated in their early stages, especially for the universal tooth decay deduced by Streptococcus mutans. This project is seeking a low-cost and convenient way to prevent oral diseases by developing oral probiotics based on GRAS strain-Bacillus subtilis. With introduction of quorum sensing system from S. mutans, the switch of our designed genetic circuits would be triggered by sensing competence-stimulating peptide (CSP, quorum sensing signaling molecule with concentration positively correlated with the number of S. mutans).Our Healthy Teeth Legion project designed multiple genetic circuits to achieve the purpose of detecting oral hygiene and preventing dental caries, as well as achieving convenient feedback of test results. For safety reasons, termination switch has been added accordingly. With combination of scientific research, computer modeling and extensive experimental data,more reliable and convenient Healthy Teeth Legion would be developed. [Wiki](https://2022.igem.wiki/zjut-china)https://static.igem.org/peertube/streaming-playlists/hls/fe9ed18e-506a-475a-9c53-d881c546c828/ed8c8439-0f90-4583-aa9b-be31a79818b3-master.m3u8https://video.igem.org/videos/embed/xrBzxc9zHTXH1jmgL4koJC543022022-10-19T20:59:53.649ZYES2022 Team PresentationsNOhttps://video.igem.org/w/cMb3iVSzKBYWV6w9WGigm8https://video.igem.org/lazy-static/thumbnails/cd6c7f02-c2c1-4b82-aa05-ba2467dd9c39.jpgGuelph: Project Ceres: An inducible bioinsecticide for preventing the spread of ... (2022) - Team...**Title:** Project Ceres: An inducible bioinsecticide for preventing the spread of insect pathogens in greenhouse crops **Description:** In 2020, Canada produced over 679,000 tonnes of greenhouse produce, with a farmgate value of 1.8 billion CAD. In Ontario, Leamington alone is home to more greenhouse acreage than the entire United States. However, many factors influence yield of these crops, and growers can experience massive yield losses due to insect damage. To meet the demand for innovative strategies to control insect pests, we engineered Bacillus subtilis to inducibly express insect Cytotoxic (Cyt) proteins through an IPTG responsive promoter, Pgrac. When off , the modified B. subtilis behaves normally and may have a positive effect on plant growth. When on, the bacterial biofilm produces Cyt proteins, creating a pesticide barrier to any Dipteran insect larvae that may be present in the soil. This powerful bioinsecticide designed by iGEM Guelph will place a new tool in the hands of growers to combat harmful greenhouse insect pathogens. [Wiki](https://2022.igem.wiki/guelph)https://static.igem.org/peertube/streaming-playlists/hls/5f632ea2-4e39-4159-a5c4-313e0407fc93/d89eb12c-73ff-4084-8567-869594d6b6e9-master.m3u8https://video.igem.org/videos/embed/cMb3iVSzKBYWV6w9WGigm8900012022-10-19T21:06:00.853ZYES2022 Team PresentationsNOhttps://video.igem.org/w/9e5je8DHoz7cJavHWAnktehttps://video.igem.org/lazy-static/thumbnails/ec68d67a-579f-4e0a-8741-6e7046cd5bb6.jpgNUDT_CHINA: Designer Cell-based Biomedical Tattoo for Monitoring Glucocorticoid ... (2022) - Team...**Title:** Designer Cell-based Biomedical Tattoo for Monitoring Glucocorticoid Levels Associated with Mental Stress **Description:** Prolonged exposure to mental stress is an important cause of the high incidence of depression and anxiety in academia. Though timely lifestyle intervention can reduce the risk of these mental diseases, early detection of chronic stress and monitoring stress levels remain difficult. Here we demonstrate a novel cell-based tattoo to detect the rising glucocorticoid level induced by chronic stress and respond with a visible output. We engineered a novel synthetic transcriptional factor that translocates from the cytosol into the nucleus upon glucocorticoid stimulation and initiates reporter gene transcription. We confirmed that the cells carrying this synthetic transcriptional factor and its reporter cassette could respond dose-dependently to glucocorticoid stimulation with either fluorescent or visible colorimetric signals. Our results demonstrate a novel cell-based strategy for monitoring the glucocorticoid levels associated with mental stress, which could help our peers to monitor their stress conditions and therefore assist them in producing better scientific discoveries. [Wiki](https://2022.igem.wiki/nudt-china)https://static.igem.org/peertube/streaming-playlists/hls/429c6fe1-da98-49ea-873d-783f76b07abf/a2d79d7e-6bbd-4695-85c8-f21827920661-master.m3u8https://video.igem.org/videos/embed/9e5je8DHoz7cJavHWAnkte889062022-10-19T21:13:58.643ZYES2022 Team PresentationsNOhttps://video.igem.org/w/b32QYkji1JXGxcrjifPmxAhttps://video.igem.org/lazy-static/thumbnails/e005044c-dc42-4fd1-9d75-a3fa6b157feb.jpgHainanU_China: NATer Nucleic acids tracker (2022) - Team Presentation [English]**Title:** NATer Nucleic acids tracker **Description:** Since the discovery of penicillin by Fleming in 1929, antibiotic research has developed rapidly and the large-scale use of antibiotics has brought about serious problems of microbial resistance. Combined with human activities, the cross-species and cross-habitat spread of drug-resistant microorganisms and antibiotic-resistant genes occurred at the'Human-marine animal-environment' interface. Antibiotics and their metabolites were enriched in the environment, spread to human by marine animals and animal products, produced drug-resistant microorganisms and caused the spread of drug-resistant genes,which has been a serious impact on human health. At present, there is no rapid detection instrument in the field of marine environmental monitoring to characterize microbial resistance in seawater. Based on the combination of CRISPR/CAS system and CSM6 protein, we identify mutagenic genes with single-base precision,detect specific drug-resistant genes in marine microorganisms and develop a platform for rapid detection of drug resistance in marine microorganisms. [Wiki](https://2022.igem.wiki/hainanu-china)https://static.igem.org/peertube/streaming-playlists/hls/514402c0-8174-48e6-a83e-73b7475621d0/634a6e22-a939-4fe7-b81b-aeccc5fa5bf8-master.m3u8https://video.igem.org/videos/embed/b32QYkji1JXGxcrjifPmxA1153012022-10-19T21:36:23.618ZYES2022 Team PresentationsNOhttps://video.igem.org/w/rRCntQKgLEecBh31cnwDQWhttps://video.igem.org/lazy-static/thumbnails/cb1b9bd0-f1a2-47fc-9d9f-ba86d9f63848.jpgPatras: PAGGAIA: An innovative Precision Agriculture approach, using Genomics, A... (2022) - Team...**Title:** PAGGAIA: An innovative Precision Agriculture approach, using Genomics, Artificial Intelligence and Aero-transportable equipment **Description:** The interactions between various soil microorganisms are challenging to study and thus remain unknown. A major issue in the field of Agriculture is the inability to collect essential data, regarding soil quality for cultivation purposes in large areas. Precision Agriculture is an innovative farming management concept, combined with Data Analysis and AI/Machine Learning models, which aims to revolutionize agriculture and soil improvement, by increasing crop yield and preserving natural resources. The goal of PAGGAIA - Precision AGriculture, using Genomics, Artificial Intelligence and Aero-transportable equipment- is to make a sustainable and positive environmental impact, by optimizing fertilizers use, seeking quantity and quality yield increase, and modernizing agricultural practices, in a bio-sustainable and consumer-friendly manner. This is accomplished by creating a protocol that includes genomic, physicochemical, and agronomic characteristics, using soil-sampling drones, portable DNA sequencing, and innovative analysis through the lens of Machine Learning to propose tailor-made interventions to farmers and specialists. [Wiki](https://2022.igem.wiki/patras)https://static.igem.org/peertube/streaming-playlists/hls/d1625343-a972-4751-b7d1-15518a69092a/f949e528-803c-4137-a255-4824c573401a-master.m3u8https://video.igem.org/videos/embed/rRCntQKgLEecBh31cnwDQW951022022-10-19T22:05:11.738ZYES2022 Team PresentationsNOhttps://video.igem.org/w/o6hEmxedgJfSQWibtFQKA3https://video.igem.org/lazy-static/thumbnails/8f05234a-1bc0-4891-9fcf-81c1d4c6c3d4.jpgHZAU-China: C.V.D: Curer of Vessel Disease (2022) - Team Presentation [English]**Title:** C.V.D: Curer of Vessel Disease **Description:** As living standards have improved, many people are suffering from overeating. An unhealthy diet will affect the level of low-density lipoprotein (LDL) and triglyceride in the body, which will lead to the occurrence of a series of cardiovascular diseases (CVD) such as thrombosis. This year, the HZAU-China team hopes that the intestinal content of TMA (trimethylamine), the precursor of TMAO (trimethylamine oxide) and an important factor inducing thrombosis, can be efficiently reduced by using Escherichia coli Nissle 1917 from two aspects: inhibiting the production of TMA and degrading the TMA already existed, so as to reduce the possibility of thrombosis. At the same time, our engineered bacteria will also release some relief substances that are beneficial to vascular protection. The project aims to develop an edible probiotic powder and provide a new idea for cardiovascular disease treatment by intestinal drug therapy. [Wiki](https://2022.igem.wiki/hzau-china)https://static.igem.org/peertube/streaming-playlists/hls/b2e60989-0524-4cb3-b555-5186a5018892/38e2103a-8da9-46be-adbf-85ecad990170-master.m3u8https://video.igem.org/videos/embed/o6hEmxedgJfSQWibtFQKA3859032022-10-19T22:17:53.621ZYES2022 Team PresentationsNOhttps://video.igem.org/w/6cbC7nxU3mEzLuZCYAj78rhttps://video.igem.org/lazy-static/thumbnails/847445d8-9484-472a-94c8-ba0829623af1.jpgLens on Labs - Dr. Wei ZhangLens on Labs - Dr. Wei Zhanghttps://static.igem.org/peertube/streaming-playlists/hls/2a0d6bd1-c7c5-4738-b786-ba228b5a9df7/0e81c680-c05c-4c17-a1d8-3c3f7da1aa56-master.m3u8https://video.igem.org/videos/embed/6cbC7nxU3mEzLuZCYAj78r30640252022-10-19T19:05:20.954ZYESiGEM CommunityNOhttps://video.igem.org/w/wA5fPiPDsntfPjWV8bQBoDhttps://video.igem.org/lazy-static/thumbnails/72b58b31-60d5-4cad-9be9-0bf76787bc83.jpgSMS_Shenzhen: To Drink Or Not To Drink (2022) - Project Promotion [English]**Title:** To Drink Or Not To Drink **Description:** Lactose intolerance indicates intestinal discomfort caused by decreased beta-galactosidase to digest lactose. Since lactase hydrolyses lactose into glucose and galactose, when the expression of lactase declines due to genetic disorder or natural ageing, the amount of lactose people can tolerate will decrease. It is a worldwide health problem that about 70% of the world population suffered from lactose intolerance. Notably, the incidence is particularly high in Asia because the downward trend of expressing lactase is strengthened by diets rarely containing lactose. In the dairy industry, Aspergillus oryzae is one of the most widely used fungal sources of beta-galactosidase (lacA) to produce lactose-free products for people with lactose intolerance. To allow people with lactose intolerance to enjoy dairy products, our project aims to express lacA heterologously in Pichia pastoris, quantify the enzymatic property of lacA, and optimise the culture conditions of recombined Pichia pastors. [Wiki](https://2022.igem.wiki/sms-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/f7b4120b-920b-4073-9a0b-860baef80ccd/d919d46f-b8cd-47ca-a0e6-23655ff40323-master.m3u8https://video.igem.org/videos/embed/wA5fPiPDsntfPjWV8bQBoD12003922022-10-20T10:00:45.479ZYES2022 Project PromotionsNOhttps://video.igem.org/w/mbUdNaLAqYJ6kstyFk1D4bhttps://video.igem.org/lazy-static/thumbnails/a9cbd6d8-a24f-4ba8-93d4-e606a799f9f4.jpgBioplus-China: Recombinant spider silk gels as bio-ink for 3D printing of artifi... (2022) - Proj...**Title:** Recombinant spider silk gels as bio-ink for 3D printing of artificial skin **Description:** Existing methods of making artificial skin have some drawbacks. Some of the materials used in artificial skin can be rejected. Also, the material's physical properties, such as flexibility, are insufficient to support complex medical needs. In addition, the production of artificial skin also faces the problem of complex production process and high cost. Therefore, we expect to develop an artificial skin with high preparation efficiency, low cost, low rejection, and high flexibility to solve these problems. [Wiki](https://2022.igem.wiki/bioplus-china)https://static.igem.org/peertube/streaming-playlists/hls/a37c649b-b384-486a-bfe1-8364aa4cd9fc/1b8038ce-4dcc-422d-a142-a12c06ce4c67-master.m3u8https://video.igem.org/videos/embed/mbUdNaLAqYJ6kstyFk1D4b12003412022-10-20T10:20:15.318ZBioInk3DPrintingSpiderSilkProteinYES2022 Project PromotionsNOhttps://video.igem.org/w/iJSNagt79LDfmEsccvXV7Fhttps://video.igem.org/lazy-static/thumbnails/22b1e244-54bc-4fdf-bd0c-02e5f8cb7180.jpgRS_United_China: Melabios: A New Friendly Way to Increase Melatonin Production f... (2022) - Team...**Title:** Melabios: A New Friendly Way to Increase Melatonin Production from Plants **Description:** The number of people have insomnia keeps increasing for many reasons. Such as colossal workload or addiction to their electronic devices. Taking melatonin, a natural hormone produced in the pineal gland of our brains, will affect one s sleeping cycle. Our project aims to develop an environmental-friendly and natural way to synthesize melatonin. Melatonin can be found in plants. However, the yield is relatively small. What we try to improve is the yield. We first extract PtoCOMT gene, related to melatonin production, from the poplars' DNA, run gel electrophoresis to test its purity, and then amplify it using polymerase chain reaction. Afterward, we transformed our target gene into two different carriers for storage and expression and transferred them into E.coli. Finally, we changed extracted plasmid into agrobacteria to infect the poplars' leaves, over-expressing our target gene, therefore increasing productivity.we use directed evolution to further perfect tne function of genes. [Wiki](https://2022.igem.wiki/rs-united-china)https://static.igem.org/peertube/streaming-playlists/hls/8fa7e64d-78b9-4fc5-a260-781bb1b144ff/e033b474-47cd-4bfc-a26a-27d65e7a28fe-master.m3u8https://video.igem.org/videos/embed/iJSNagt79LDfmEsccvXV7F900012022-10-20T15:26:43.923ZYES2022 Team PresentationsNOhttps://video.igem.org/w/vkPHzqN1Uxn3TQsbvFFei4https://video.igem.org/lazy-static/thumbnails/9fd24ab0-d262-4424-aecd-9821bcb8b0eb.jpgNCHU_Taichung: A Novel Therapeutic, Modified Dressing- With The Functional PQQ (2022) - Project P...**Title:** A Novel Therapeutic, Modified Dressing- With The Functional PQQ **Description:** Our project is to use Bacillus subtilis natto as a host to achieve higher efficiency in the production of PQQ so that the yield can be high enough for commercial products and also develop wound dressings with PQQ in hope of reducing the risk of microbial infection in diabetic patients after the wound is formed. This video briefly introduced what PQQ is （Pyrroloquinoline quinone ）,why we want to utilize PQQ in diabetics wound dressing and why we choose Bacillus subtilis natto as a host to produce PQQ. #diabetes #diabetic #woundhealing [Wiki](https://2022.igem.wiki/nchu-taichung)https://static.igem.org/peertube/streaming-playlists/hls/ed9d8f2f-246f-4a21-907e-de964ceb88d9/2ef123d9-d70d-4857-89b9-acc9da45243b-master.m3u8https://video.igem.org/videos/embed/vkPHzqN1Uxn3TQsbvFFei411004642022-10-20T15:33:54.280ZYES2022 Project PromotionsNOhttps://video.igem.org/w/f4qNVrnjLacyE31pLx6BBghttps://video.igem.org/lazy-static/thumbnails/ce6a4fdd-e69a-45c7-a8f7-7127a47040e2.jpgBIT-China: Less oxygen, more possibilities (2022) - Project Promotion [English]**Title:** Less oxygen, more possibilities **Description:** Our project stems from the idea of biological hydrogen production and nitrogen fixation. It is found that hydrogenase and nitrogenase have the oxygen paradox. In response to this problem, we propose to construct a system called Oxygen Hunter to maintain an intracellular hypoxic environment and normal metabolism. Therefore, leg hemoglobin was selected to enrich oxygen to the respiratory site, and laccase catalyzed oxygen reduction to water. We decided to compare its effect, so we chose an anaerobic promoter-connected fluorescent protein to detect oxygen concentration and oxygen consumption rate. We hope to introduce application components for the biological production of reducing products, combined nitrogen fixation, hydrogen production, and reduction of organic matter and carbon dioxide, and can provide a low oxygen environment to promote the reduction of biomass as energy products. [Wiki](https://2022.igem.wiki/bit-china)https://static.igem.org/peertube/streaming-playlists/hls/71da762d-8808-4704-b5f5-e13814e5f8e1/a970619c-d037-4f0d-bb45-9c3a23ca5fa3-master.m3u8https://video.igem.org/videos/embed/f4qNVrnjLacyE31pLx6BBg114011682022-10-20T16:57:46.388ZYES2022 Project PromotionsNOhttps://video.igem.org/w/fR6vsb5j7QGLvfpoQxQg6Dhttps://video.igem.org/lazy-static/thumbnails/60810809-ff9b-4c8e-9462-617b1a43edeb.jpgSZPT-CHINA: Beauty G. hansenii -- A Self-growth Multifunctional Film for Cosmeti... (2022) - Team...**Title:** Beauty G. hansenii -- A Self-growth Multifunctional Film for Cosmetic Use **Description:** Everyone has a love for beauty, but people have different needs for skin care. To achieve multiple efficacy at the same time, various skincare products are often required. To this end, we focused on developing a live bacterial skincare product with multiple efficacy, and the 'Beauty G. hansenii' with high glutathione production was constructed in our project. Moreover, an optogenetic system was designed to control the 'Beauty G. hansenii'. Within the system, NIR light is used to regulate the production of bacterial cellulose for moisturizing, while blue light is used to regulate the release of glutathione and bacterial lysate for brightening, anti-spot, repairing, anti-aging and skin microbiome maintenance. Our product is presented in the form of live bacterial emulsion, committed to providing users with the freshest glutathione and a brand-new skincare experience. We hope this product can better demonstrate the unique beauty of each user and shine their lives. [Wiki](https://2022.igem.wiki/szpt-china)https://static.igem.org/peertube/streaming-playlists/hls/783ac7bf-21c5-48d9-a903-55889b4f9bd3/c9841a8e-9598-4948-8af6-4e219051b77a-master.m3u8https://video.igem.org/videos/embed/fR6vsb5j7QGLvfpoQxQg6D748042022-10-20T17:31:32.793ZYES2022 Team PresentationsNOhttps://video.igem.org/w/o6vtgbs467jabu6Z8r5jF9https://video.igem.org/lazy-static/thumbnails/693f12f0-4727-4835-b202-9e7666f50e6a.jpgBiodiversity Youth ForumSynthetic biology can be used to maintain global biodiversity. However, some community sectors perceive its use in agriculture as problematic. During the Biodiversity Youth Forum, paticipants had the opportunity to network with representatives of different youth organizations making efforts on biodiversity; they also joined the discussions on the scientific and social aspects surrounding the topic and ultimately participated in a position of iGEMers about biodiversity.https://static.igem.org/peertube/streaming-playlists/hls/b2edee50-d50c-4a9f-a98c-1ceb664848b6/ebbb6aff-7711-45e7-b07e-134789dfd95a-master.m3u8https://video.igem.org/videos/embed/o6vtgbs467jabu6Z8r5jF98760092022-10-20T22:27:14.687ZYESiGEM CommunityNOhttps://video.igem.org/w/a3adZXX6NTN8gx6xTZuivUhttps://video.igem.org/lazy-static/thumbnails/025b07b2-3b46-4b4a-8f02-67e4ea8b2c88.jpgDUT_China: Strainer - A purification system enable high efficient CRISPR-based g... (2022) - Team...**Title:** Strainer - A purification system enable high efficient CRISPR-based genome engineering during cell factory construction **Description:** CRISPR/Cas system has been successfully harnessed for programmable RNA-guided genome editing in many fields. But CRISPR-based genome engineering strategies have off-target cleaves, variable gRNA efficiency, protospacer-adjacent motif (PAM) specificity and other problems. These hinder us obtaining strains that are accurately edited, prolonging the time of strain construction and screening, costing more manpower and materials. Here, we developed a CRISPR-based purification system strainer , which utilizes double stranded DNA breaks (DSBs) as a signal to start the transcription of gRNA targeting on the plasmid harboring inducible toxic gene SacB. Then, only the strain with DSBs and recombineering can survive in the media with sucrose, because SacB converts sucrose to levan that is toxic to E. coli, thereby improving the overall editing efficiency during the genome engineering process. We then applied strainer for an isopropanol high-producing strain construction efficiently. Strainer can be potentially used as an universal method for cell factory construction. [Wiki](https://2022.igem.wiki/dut-china)https://static.igem.org/peertube/streaming-playlists/hls/492f6b88-6c5d-4790-83cc-a8ec12c4713a/582dd73e-100b-4243-b90a-5d34d921df23-master.m3u8https://video.igem.org/videos/embed/a3adZXX6NTN8gx6xTZuivU822052022-10-20T23:05:43.035ZYES2022 Team PresentationsNOhttps://video.igem.org/w/o9KY1TRAiHu8ya9uP6HiR6https://video.igem.org/lazy-static/thumbnails/a03e7b86-d8d2-459a-b3b1-085e3a3e4228.jpgLens on Labs - Prof. George ChurchLens on Labs - Prof. George Churchhttps://static.igem.org/peertube/streaming-playlists/hls/b3621876-5fb3-4091-a8b5-785b4b7aac9b/015e2180-e45a-41f1-a611-fb9599db9fb8-master.m3u8https://video.igem.org/videos/embed/o9KY1TRAiHu8ya9uP6HiR635560492022-10-21T03:37:23.103ZYESiGEM CommunityNOhttps://video.igem.org/w/dDG5fUyNyU6bjCcbdXWBGZhttps://video.igem.org/lazy-static/thumbnails/11d56145-3845-4a11-bf9b-055c38ac94bf.jpgQdai: Bio Gas (2022) - Team Presentation [English]**Title:** Bio Gas **Description:** Our goal is artificial methane production. The production of methane from livestock waste, which is currently a depleting resource, will lead to a sustainable society. Methane production involves three steps These are the decomposition of cellulose, the synthesis of acetic acid, and the synthesis of methane from acetic acid. We will focus on the synthesis of acetic acid in particular. [Wiki](https://2022.igem.wiki/qdai)https://static.igem.org/peertube/streaming-playlists/hls/6670e128-17af-45db-9544-76f96a814595/187305ca-3d1d-464e-8157-2c0377a7e7b6-master.m3u8https://video.igem.org/videos/embed/dDG5fUyNyU6bjCcbdXWBGZ751042022-10-21T06:30:48.730ZYES2022 Team PresentationsNOhttps://video.igem.org/w/9ApkQSYL7fk6ZgUg1ABHvEhttps://video.igem.org/lazy-static/thumbnails/e9362f9d-1f32-4874-9b8f-737e0240833b.jpgWego_Taipei: Eutro in Vitro: Synthetic Biological Reduction of Phosphate Concent... (2022) - Team...**Title:** Eutro in Vitro: Synthetic Biological Reduction of Phosphate Concentration to Resolve Eutrophication **Description:** In various water bodies, the overabundance of nutrients from agricultural chemicals, including fertilizers and biocides, resulted in the process of eutrophication. The increase of phosphate and nitrogen amounts leads to algal bloom followed by the decline in sustainability of lives in the water bodies. The physical and chemical solutions that currently exist are limited to certain conditions and could potentially disturb the ecosystem. Our project presents a new method to solve the issue of eutrophication from its roots. By engineering bacteria that overexpress organophosphorus hydrolase (OPH) and antisense PhoU mRNA (AsPhoU), we can hydrolyze organic phosphates into inorganic phosphate (Pi) for detoxification, enhance the efficacy of Pi transport, and fix the excess of Pi into polyphosphate (polyP), respectively. The implementation of a filtering device containing the engineered bacteria with biosensors for the detection of polyphosphate accumulation could reduce phosphate levels in water bodies to ultimately prevent the cycle of eutrophication. [Wiki](https://2022.igem.wiki/wego-taipei)https://static.igem.org/peertube/streaming-playlists/hls/4596c855-34a8-4f55-b347-6478362a95d4/143f7744-1db4-4e96-94d5-8299847fb392-master.m3u8https://video.igem.org/videos/embed/9ApkQSYL7fk6ZgUg1ABHvE797022022-10-21T08:55:35.549ZYES2022 Team PresentationsNOhttps://video.igem.org/w/hBqb99bLmpfyRtSFpMKPAfhttps://video.igem.org/lazy-static/thumbnails/a807304b-b644-4129-b8cf-7539edffab75.jpgFudan: Rester: A Vitamin A Biomanufacturing Cell Factory for Skincare Products (2022) - Team Pres...**Title:** Rester: A Vitamin A Biomanufacturing Cell Factory for Skincare Products **Description:** Our society has been under massive academic and work pressure recently. However, as the most exterior health indicator, skin loses the care that it should have according to research indicating that over 40% of people have worsened skin health due to a work-life imbalance and a lack of skincare awareness during the pandemic. Our project Rester centers on Vitamin A, an effective skincare reagent but with possible side effects. Our modified cell factories featuring phase separation and enzyme anchoring contain the reaction route of beta-carotene, retinal, and retinol through consecutive enzymatic reactions with appropriate efficiency. It would underlie the production of Vitamin A derivatives that overcome the instability and hazard issues of typical Vitamin A forms in skincare products. This biomanufacturing plan helps people with heavy stress and skincare queries raise their proper skincare awareness, ease their financial burden of skincare, and ultimately regain confidence in their careers and life. [Wiki](https://2022.igem.wiki/fudan)https://static.igem.org/peertube/streaming-playlists/hls/86842616-7b36-400f-adc8-b36353a9c906/67672ace-e3af-4b5f-9d23-0b6feda082cd-master.m3u8https://video.igem.org/videos/embed/hBqb99bLmpfyRtSFpMKPAf850082022-10-21T10:22:32.883ZYES2022 Team PresentationsNOhttps://video.igem.org/w/we7f9P969X2Gt6R8CFthPnhttps://video.igem.org/lazy-static/thumbnails/9d0125bb-bf7c-464f-b531-7ac9788e10f6.jpgZJU-China: Story Light restoration of stone relics by Microbial Induced Calcite ... (2022) - Team...**Title:** Story Light restoration of stone relics by Microbial Induced Calcite Precipitation **Description:** Stone cultural relics are closely linked with human civilization. However, they are being threatened. Among all the damage factors, tiny cracks have received a lot of attention and are difficult to be restored by existing technologies. In order to overcome the challenges in restoring tiny cracks, ZJU-China is dedicated to developing technologies for the integrated conservation of stone artifacts based on engineered Bacillus subtilis induced biomineralization. Extracellular calcium carbonate precipitates are brought in for filling the tiny cracks of stone artifacts, with an extracellular scaffold system to further improve the physicochemical properties of the materials. We have also added a quorum sensing module and a biosafety module to make our materials environmentally friendly and efficient. Hopefully, Story Light will be a new technology for the integrated conservation of stone artifacts! [Wiki](https://2022.igem.wiki/zju-china)https://static.igem.org/peertube/streaming-playlists/hls/f4c6ad43-78fe-4514-9948-b0d1605d5063/0d2075bf-2d65-43d1-bee4-2bc765ff006e-master.m3u8https://video.igem.org/videos/embed/we7f9P969X2Gt6R8CFthPn872052022-10-22T06:45:27.244ZYES2022 Team PresentationsNOhttps://video.igem.org/w/6nW1KzhSud6XZAKY4vmCV3https://video.igem.org/lazy-static/thumbnails/e15c0944-fe8c-471e-8b48-a74d46dc6568.jpgFAFU: Pipeline Tracker :New device for regionalized detection of pathogens (2022) - Team Presenta...**Title:** Pipeline Tracker :New device for regionalized detection of pathogens **Description:** How to detect an outbreak of an epidemic has been a challenge for mankind since ancient times. After an outbreak of infectious disease in a certain area, rapid response and control will save many lives and restore health. Water is the necessary resource for everyone's survival, at the same time everyone also produces a lot of domestic wastewater every day. Many known pathogens can remain active in domestic wastewater for long periods of time. FAFU used COVID-19 as an example and developed a device to detect the virus by placing it near the sewer pipe in the living area. [Wiki](https://2022.igem.wiki/fafu)https://static.igem.org/peertube/streaming-playlists/hls/2b8d9960-e855-4f62-932b-e1d95901fd64/31f8543d-305b-417b-aff7-448397479a5d-master.m3u8https://video.igem.org/videos/embed/6nW1KzhSud6XZAKY4vmCV3892032022-10-22T08:40:31.659ZYES2022 Team PresentationsNOhttps://video.igem.org/w/cKM3G7TH1JgtSj7uL8j3xQhttps://video.igem.org/lazy-static/thumbnails/b3f6fa88-86b6-4806-b373-88c12c89ce38.jpgBNUZH-China: BCAID - An in-vivo Biodegradable Skin Regeneration Scaffold System ... (2022) - Team...**Title:** BCAID - An in-vivo Biodegradable Skin Regeneration Scaffold System Based On Bacterial Cellulose **Description:** Skin tissue defects caused by various wound factors are very common clinically. Relying on the epithelium and basal tissue of their own wound margins, severe wounds and chronic wounds such as extensive burns and venous ulcers are difficult to heal. Tissue engineering scaffolds have great advantages in repairing skin wounds. The excellent properties of bacterial cellulose (BC) make it to be qualified as a high-quality tissue engineering scaffold. However, cellulose is non-degradable in vivo, which is a knotty problem that restricts its application at present. BCAID provides a solution in synthetic biology for the real application of BC tissue engineering scaffolds in human body, which is of great significance for repairing skin tissue wounds. BCAID is divided into basic BC production module, healing promoting module, blue-light activated BC degradation module and red-light activated engineered fibroblast(BJ) suicide module. The four modules constitute the whole BCAID with complete functions and excellent characteristics. [Wiki](https://2022.igem.wiki/bnuzh-china)https://static.igem.org/peertube/streaming-playlists/hls/5f3144a9-1f10-40d3-8b8d-0f48bffb033e/0784e4b0-a91c-4f05-8c89-3371cb0c2653-master.m3u8https://video.igem.org/videos/embed/cKM3G7TH1JgtSj7uL8j3xQ891052022-10-24T01:11:59.705ZYES2022 Team PresentationsNOhttps://video.igem.org/w/c48j1dxAtQhJQUmYjPGYW3https://video.igem.org/lazy-static/thumbnails/68c40c34-37af-4501-a140-15396817df52.jpgCUHKSZ: Point-of-Care detection of Nitrite based on nrfA triggered by NarP-depen... (2022) - Team...**Title:** Point-of-Care detection of Nitrite based on nrfA triggered by NarP-dependent regulation in Escherichia coli **Description:** Recently, intensive use of nitrite is adversely affecting the environment and human health. However, current detection methods require sophisticated pre-treatment and instrumentation, significantly limiting usage scenarios and increasing detection costs. Our team is therefore motivated to develop a fast, easy-operative solution for portable nitrite determination. Discovering the dissimilatory nitrite reduction pathway within E.coil, we genetically engineered BL21 to overexpress nitrite reductase NrfA to detect nitrite concentration more efficiently in the water, food, and plasma samples. With the E. coli being coated on a paper-based biosensor, electrons produced from nitrite reduction are transferred into an electrical signal and transformed to nitrite concentration after data preprocessing. The result will be shown to every customer, accompanying an evaluation of the sample's safety. Harnessing the power of nature, we lead a step toward a more intelligent, proactive, and environmentally friendly lifestyle. [Wiki](https://2022.igem.wiki/cuhksz)https://static.igem.org/peertube/streaming-playlists/hls/59844303-54b5-49ce-bbf4-bda5f4bd198e/5dc45957-d7cb-4b7e-a1ed-5ecaeb1e6835-master.m3u8https://video.igem.org/videos/embed/c48j1dxAtQhJQUmYjPGYW31115012022-10-24T06:26:39.180ZYES2022 Team PresentationsNOhttps://video.igem.org/w/sy8ku9isTDobREa2FWGQENhttps://video.igem.org/lazy-static/thumbnails/9ff03c4d-04c4-41a3-96f7-17c9c240ba07.jpgIktan Kaan' Ek (2022) - Project PromotionIktan Kaan' Ek (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/d709ed3e-e3d4-41ac-98f5-0dec97d1af4a/743aa974-6eee-4238-a7cb-d84ac9ae9dca-master.m3u8https://video.igem.org/videos/embed/sy8ku9isTDobREa2FWGQEN122082022-10-24T13:16:09.496ZYESiGEM Design LeagueNOhttps://video.igem.org/w/tw86UGhAEUEv4vZef51d3chttps://video.igem.org/lazy-static/thumbnails/138ecd1b-d84f-4b15-814b-34d9de5b47d5.jpgOsiris Rio UFRJ (2022) - Project PromotionOsiris Rio UFRJ (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/dedb6f00-a072-4223-b5bb-c42f565ed7ef/658b42d1-4282-42fa-a096-65dee4026a77-master.m3u8https://video.igem.org/videos/embed/tw86UGhAEUEv4vZef51d3c1200202022-10-24T13:37:41.626ZYESiGEM Design LeagueNOhttps://video.igem.org/w/81Jrm5rAiYY531wbDVU5dFhttps://video.igem.org/lazy-static/thumbnails/31f03b4e-e2e3-49fa-96cd-72f32e24581f.jpgBioMed CCM (2022) - Project PromotionBioMed CCM (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/38ca1f93-fea0-4281-81e8-ae5a08a9797f/c76b0ac6-2441-4cf0-887f-b7aae069addf-master.m3u8https://video.igem.org/videos/embed/81Jrm5rAiYY531wbDVU5dF1140142022-10-24T16:40:40.178ZYESiGEM Design LeagueNOhttps://video.igem.org/w/5AF8NeXc1Csk6ffwTq4P6ihttps://video.igem.org/lazy-static/thumbnails/fe995040-4928-49f6-8122-fb45f685f0a1.jpgTanTariBricks (2022) - Project PromotionTanTariBricks (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/253bf5d4-6da6-4e33-931a-3dd89c5cfc27/ee83d2c2-98f1-4715-b752-2c3d0849cfae-master.m3u8https://video.igem.org/videos/embed/5AF8NeXc1Csk6ffwTq4P6i1200192022-10-24T16:43:57.560ZYESiGEM Design LeagueNOhttps://video.igem.org/w/rj4VxWqHDEdaSEXy6Kkmfphttps://video.igem.org/lazy-static/thumbnails/173a347e-0053-43b4-8722-6600bf228a41.jpgiGEM UNALM (2022) - Project PromotioniGEM UNALM (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/ccfa45ad-069d-4daf-a242-13cb7373405b/9cf691e4-5dfe-4d74-8ebe-1214331bb44f-master.m3u8https://video.igem.org/videos/embed/rj4VxWqHDEdaSEXy6Kkmfp1200102022-10-24T16:48:13.693ZYESiGEM Design LeagueNOhttps://video.igem.org/w/sCB1tiYJQ23ThgNBzsVTrQhttps://video.igem.org/lazy-static/thumbnails/0bf4627e-b579-4417-a0ba-8661e94fefd5.jpgStony_Brook: SBU PROS (2022) - Project Promotion [English]**Title:** SBU PROS **Description:** There is currently no therapy to administer solely protein S directly into the bloodstream to treat protein S deficiencies among other serious disorders. We are Stony Brook University’s 2022 iGEM team, and our project, PROS, proposes an injectable delivery of a recombinant human protein S therapy. Through our project, we hope to address current gaps in treatment and existing health disparities. [Wiki](https://2022.igem.wiki/stony-brook)https://static.igem.org/peertube/streaming-playlists/hls/d7a9f495-0a4e-4fda-bed6-1bb7cbfb644e/ebb4757b-e323-4165-a6dc-15dbcdb88d59-master.m3u8https://video.igem.org/videos/embed/sCB1tiYJQ23ThgNBzsVTrQ120017042022-10-24T19:26:50.413ZYES2022 Project PromotionsNOhttps://video.igem.org/w/cxdw5hLJ6uEpyLxNqsRM64https://video.igem.org/lazy-static/thumbnails/b639c1eb-d7e6-424f-bb9a-4066a976fe3a.jpgDKU: GutGuard - Shigella eradication with cell surface displayed nanobodies (2022) - Team Present...**Title:** GutGuard - Shigella eradication with cell surface displayed nanobodies **Description:** Shigella, named as one of the most antibiotic-resistant, problematic pathogens by the CDC in 2019, has mostly been treated with antibiotics to this day. Antibiotics impose strong selective pressure on the bacteria and degrade host gut microbiome diversity upon treatment. Nanobody displayed on cell surfaces can inhibit the type III secretion system on shigella, thus inhibiting bacterial invasion without imposing strong selective pressure on the bacteria. Probiotics are chosen as hosts for the surface display because of their potential inhibition effects on the pathogenic bacteria and host-friendly characteristics. [Wiki](https://2022.igem.wiki/dku)https://static.igem.org/peertube/streaming-playlists/hls/5d704c04-3dc6-42f4-bfa5-a5850c5749c1/c12e4cc1-ef41-47cb-92ba-192326084d85-master.m3u8https://video.igem.org/videos/embed/cxdw5hLJ6uEpyLxNqsRM64836082022-10-24T20:24:55.340ZYES2022 Team PresentationsNOhttps://video.igem.org/w/5qxt2WVYUG43JZrbYRLVSghttps://video.igem.org/lazy-static/thumbnails/1e886c3d-64b8-4ebe-88d6-2b723094e7a2.jpgWorldshaper-HZ: A portable breast cancer diagnosis kit based on CRISPR-Cas techn... (2022) - Team...**Title:** A portable breast cancer diagnosis kit based on CRISPR-Cas technology **Description:** Breast cancer has become the most common cancer in the world with the highest mortality in female cancers in 2020. Early diagnosis of breast cancer and individualized optimization of treatment strategies can greatly improve survival. Our project offers a sensitive, cheap, noninvasive, and widely applicable alternative way of sensing circRNA biomarkers for breast cancer. Our detection tool combines a CRISPR-Cas12a technology with a cell-free system to identify two circRNA biomarkers, hsa_circ_0001785 and hsa_circ_0001982, for the diagnosis and prognosis of breast cancer patients, respectively. The detection is sensitive for minimally invasive samples like blood and can be further extended to other circRNA biomarkers with ease. We aim to reduce the mortality rate of devastating diseases by providing a convenient method to screen them early. [Wiki](https://2022.igem.wiki/worldshaper-hz)https://static.igem.org/peertube/streaming-playlists/hls/23d1cbfa-789d-4278-a93f-065be1acdfc7/c8dd0484-1456-415a-94d3-caac57607a6e-master.m3u8https://video.igem.org/videos/embed/5qxt2WVYUG43JZrbYRLVSg8360102022-10-25T02:19:19.984ZYES2022 Team PresentationsNOhttps://video.igem.org/w/saw2JqmsuXeSZ2fkgawuvWhttps://video.igem.org/lazy-static/thumbnails/674aa138-48ea-463f-9d09-7f75139004d8.jpgWorldshaper-NJBIOX: Regeneration of shrimp and crab shells waste: an innovative ... (2022) - Team...**Title:** Regeneration of shrimp and crab shells waste: an innovative way to produce biofuel **Description:** Global energy exhaustion has been a serious issue all over the world. Until now, the world has made many efforts on developing new energy sources and technologies, but many of refacing various problems, such as expensive raw materials and the inability of mass-production. Butyl butyrate is a new class of biofuels with high performance. We engineered Clostridium tyrobutyricum to produce both butyric acid and butanol at the same time, and esterify it to form butyl butyrate under the catalysis of lipase. The aldehyde alcohol dehydrogenase AdhE2 gene were introduced into C. tyrobutyricum to convert butyryl-CoA to butanol, and the expression of Thl and Hbd were also strengthened at the same time to improve the yield of butyryl-CoA. Using discarded shrimp and crab shells as a kind of nutrient source, the green production process of butyl butyrate from kitchen waste to biofuels is realized. [Wiki](https://2022.igem.wiki/worldshaper-njbiox)https://static.igem.org/peertube/streaming-playlists/hls/d3e1ce3e-a126-4bd0-8895-4233922a7618/cae481d4-d8a8-4fc5-ae45-8f9f04afb56a-master.m3u8https://video.igem.org/videos/embed/saw2JqmsuXeSZ2fkgawuvW776022022-10-25T04:12:07.950ZYES2022 Team PresentationsNOhttps://video.igem.org/w/9uAa6UdhLezcpZKsqs4Nyxhttps://video.igem.org/lazy-static/thumbnails/acd5d366-d1b9-4818-a1de-02fd7b87b81f.jpgMIT: GSHield: Glutathione Patch for Treating Oral Mucositis (2022) - Team Presentation [English]**Title:** GSHield: Glutathione Patch for Treating Oral Mucositis **Description:** Oral mucositis (OM) is a common complication of cancer therapies characterized by the breakdown of epithelial cells in the oral cavity, resulting in inflammation-promoting reactive oxygen species (ROS) and DNA damage. This leads to the death of surrounding oral epithelial cells, which leaves the mucosal tissue susceptible to infection and ulceration. Current therapeutics focus on improving oral hygiene and treating pain. However, GSHield aims to reduce surrounding non-cancerous cell death and provide a protective barrier between the oral cavity and irritants. We aim to produce a bacterial cellulose patch functionalized with yeast engineered to increase extracellular production of glutathione, an antioxidant that quenches ROS. ADP1 and GSH1, which are involved in export and synthesis will be overexpressed, while genes encoding for degradation will be knocked out. Our system will be able to sense and respond to environmental signals using the CCP1 promoter, which is responsive to oxidative stress. [Wiki](https://2022.igem.wiki/mit)https://static.igem.org/peertube/streaming-playlists/hls/44c6fc1b-7059-4364-b9ce-7ffbb86ec5ef/3d1bdc52-ae3d-441a-90af-67ddf45ecb99-master.m3u8https://video.igem.org/videos/embed/9uAa6UdhLezcpZKsqs4Nyx875082022-10-25T04:38:18.286ZYES2022 Team PresentationsNOhttps://video.igem.org/w/vPYg7cNfhH8QhntkENN1MBhttps://video.igem.org/lazy-static/thumbnails/cfe54489-415f-4ea6-982e-2e654f4276b1.jpgGreatBay_SCIE: Environmentally friendly approach to cloths recycling by construc... (2022) - Team...**Title:** Environmentally friendly approach to cloths recycling by constructing cellulosome-like protein complexes **Description:** Fast fashion is an indispensable part of people s lives, while it causes non-negligible detrimental effects on the environment due to waste consumption. Inspired by cellulosome from C.thermocellum, we designed two cellulosome-like protein complexes to degrade the cellulose and PET respectively. Accordingly, we engineered Kluyveromyces. marxianus to express dockerin-fused cellulase, cellulase boosters , PETase and MHETase, which can be assembled on to mini scaffoldins expressed by E.coli. Moreover, we enable E.coli to express a surface display system and thereby as the host of our cellulosome-like nanomachines . Eventually, the products can be converted back into high-value textiles, including bacterial cellulose and polyester. GreatBay_SCIE further explored enzyme-microbe synergy to improve the efficiency of enzymes and metabolically inactivate microorganisms to boost the yield of products. Therefore, our nanomachines can serve as an innovative means of cloth recycling in the future. [Wiki](https://2022.igem.wiki/greatbay-scie)https://static.igem.org/peertube/streaming-playlists/hls/f18ba66b-2eee-47d3-b662-806922899b65/626ba4f9-63c6-46b5-afb4-f8edc86f65f2-master.m3u8https://video.igem.org/videos/embed/vPYg7cNfhH8QhntkENN1MB8610212022-10-25T06:31:44.474ZYES2022 Team PresentationsNOhttps://video.igem.org/w/vd6WNBKorkV18KJqfrbMikhttps://video.igem.org/lazy-static/thumbnails/4c1e3628-547d-4a3b-b32b-5c05b93a7481.jpgiGEM UPCH2022 (2022) - Project PromotioniGEM UPCH2022 (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/ec899c2c-3410-4ac0-9e80-76c8b2ebf621/5384c77d-a4c5-4cc6-9aee-22afa0cc1da7-master.m3u8https://video.igem.org/videos/embed/vd6WNBKorkV18KJqfrbMik1200192022-10-25T11:49:29.423ZYESiGEM Design LeagueNOhttps://video.igem.org/w/tMSRzPZZ8iKaAD2Z3WXMx6https://video.igem.org/lazy-static/thumbnails/a877cfe5-c93d-4fe8-b164-c0a1c18fa540.jpgBioB-HIVE UVG (2022) - Project PromotionBioB-HIVE UVG (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/e10e8dcc-b9ac-416b-88aa-e0f4ab115557/b5621d4f-66f3-491c-9294-40bc79a058d3-master.m3u8https://video.igem.org/videos/embed/tMSRzPZZ8iKaAD2Z3WXMx61030132022-10-25T11:54:36.896ZYESiGEM Design LeagueNOhttps://video.igem.org/w/8jMpEYThQnyeRPmuXzzyCehttps://video.igem.org/lazy-static/thumbnails/6e720a52-d61f-4051-b2b9-44aea000844d.jpgBIOMED (2022) - Project PromotionBIOMED (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/3b4f579d-0bab-4e99-a706-aab4b4bd4e4d/4911f843-2914-4fd4-8d40-0113a751cc13-master.m3u8https://video.igem.org/videos/embed/8jMpEYThQnyeRPmuXzzyCe1040192022-10-25T12:00:11.209ZYESiGEM Design LeagueNOhttps://video.igem.org/w/gbcr31R3Upndx13iKvDfyehttps://video.igem.org/lazy-static/thumbnails/467dfaf0-718b-40cb-8e1b-9acb403d54b1.jpgBioverse (2022) - Project PromotionBioverse (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/7ae59006-2c6a-42f9-bf59-d58a1c3d10fd/01f5e718-969f-4105-a011-330eacaf3d23-master.m3u8https://video.igem.org/videos/embed/gbcr31R3Upndx13iKvDfye1190122022-10-25T12:21:22.565ZYESiGEM Design LeagueNOhttps://video.igem.org/w/w94Yte2XLmhDuDSgiodAwChttps://video.igem.org/lazy-static/thumbnails/7e565dbc-aa33-4292-bb4e-24dfeb718e45.jpgCo2 snatchers (2022) - Project PromotionCo2 snatchers (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/f4128f0c-775f-4f12-b230-31d0f1664a58/12c1770c-7bc4-484b-8a41-3f5fe2b58279-master.m3u8https://video.igem.org/videos/embed/w94Yte2XLmhDuDSgiodAwC1180162022-10-25T12:31:58.843ZYESiGEM Design LeagueNOhttps://video.igem.org/w/sK8oWG8xVagvQCC3GvsYCahttps://video.igem.org/lazy-static/thumbnails/3b3e708c-82cb-4f5d-9f1f-fc919a74aef1.jpgNWU-CHINA-A: The Battle of Red and Blue: Biosensors to Detect Microbleeds (2022) - Team Presentat...**Title:** The Battle of Red and Blue: Biosensors to Detect Microbleeds **Description:** The symptoms of intestinal microbleeding are too hard to be noticed, and by the time the patients notice, the disease has caused great pain to their body.Our project is committed to using engineering probiotics to make a biosensor suitable for detecting intestinal micro bleeding, and to design a device that can easily cultivate bacteria under non-experimental conditions to achieve convenient self-test. By introducing double plasmids into EcN, ChuA(heme transporter), HrtR(Lactococcus heme reactive transcription inhibitor), promoter HrtO and pigment genes were introduced into engineering probiotics. By taking probiotics to act on the intestines, when there is a small amount of intestinal bleeding, ChuA will transport the heme in the intestines to E. coli and combine with hrtr to affect the transcription and expression of the hrto promoter, and express the pigment gene . Finally, detect whether there is pigment to determine whether there is trace bleeding. [Wiki](https://2022.igem.wiki/nwu-china-a)https://static.igem.org/peertube/streaming-playlists/hls/d893251b-7c2f-46f5-bca8-af538a77f271/7dee10ad-a669-41ce-8bff-63890e282813-master.m3u8https://video.igem.org/videos/embed/sK8oWG8xVagvQCC3GvsYCa769042022-10-25T14:33:21.004ZYES2022 Team PresentationsNOhttps://video.igem.org/w/6rQjmMVx5aEzHz53uKRQJPhttps://video.igem.org/lazy-static/thumbnails/281c4433-e3ba-47fa-b3ce-84e5d55e2774.jpgBIT: Etiological classification system of chronic musculoskeletal pain based on ... (2022) - Team...**Title:** Etiological classification system of chronic musculoskeletal pain based on miRNA biomarkers **Description:** Chronic musculoskeletal pain (CMP) is the most common chronic pain in clinical practice. The prevalence of CMP is increasing due to aging of the population and lifestyle changes. Low treatment and remission rate of CMP have reduced quality of life and caused a waste of medical resources. Accurate distinction between two origins of CMP, namely neuropathic and nociceptive, can help diagnosis and treatment. The expression of miRNAs is distinct in different types of CMP. Using HCR+CRISPR system and paper-based chips, we developed a programmable quantitative detection device for a variety of miRNAs. HCR is an enzyme-free isothermal nucleic acid amplification system. The downstream CRISPR/Cas12a system recognizes and cleaves the amplification products of HCR, generating fluorescence signals. Meanwhile, we designed a portable paper chip and incubator suitable for various application scenarios, and used smartphones to analyze the reaction results, and combined with the classification model, achieved pain classification and evaluation. [Wiki](https://2022.igem.wiki/bit)https://static.igem.org/peertube/streaming-playlists/hls/2c19104c-76bb-4ac1-a942-2c3f386df6cb/a4060e96-ae01-4d7e-a139-94fd1e253eb1-master.m3u8https://video.igem.org/videos/embed/6rQjmMVx5aEzHz53uKRQJP887042022-10-25T15:06:55.367ZYES2022 Team PresentationsNOhttps://video.igem.org/w/7dj95R7W6nxETagpQk5FTvhttps://video.igem.org/lazy-static/thumbnails/118ecd94-084c-49fb-9743-b67a2bdc9cfe.jpgCrimson Wolves (2022) - Project PromotionCrimson Wolves (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/324eef9c-b6e5-46f6-a3b3-aeb451ee5f37/32fef6db-28cb-4523-80fe-68d8d358b59d-master.m3u8https://video.igem.org/videos/embed/7dj95R7W6nxETagpQk5FTv1200162022-10-25T15:08:01.781ZYESiGEM Design LeagueNOhttps://video.igem.org/w/uXAD7CGsyq9QmQg5L5taAwhttps://video.igem.org/lazy-static/thumbnails/e64713d3-29b8-4b33-b5f0-4576d2715f63.jpgFCB-UANL (2022) - Project PromotionFCB-UANL (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/ea83232e-7f0d-455e-a229-cf7a810f1a8e/9c3ea692-2c94-4469-a380-acc3f6b10bf6-master.m3u8https://video.igem.org/videos/embed/uXAD7CGsyq9QmQg5L5taAw1180152022-10-25T16:03:47.057ZYESiGEM Design LeagueNOhttps://video.igem.org/w/tkegCr8bjQorDNSTDMKeXhhttps://video.igem.org/lazy-static/thumbnails/5f260032-dcfc-48f3-9828-e8d0b686f95e.jpgFENIX (2022) - Project PromotionFENIX (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/dd560d93-fe24-4c16-9063-13e5306d17c2/2dd1e026-803a-4be9-ab6f-82aa4165c423-master.m3u8https://video.igem.org/videos/embed/tkegCr8bjQorDNSTDMKeXh1200152022-10-25T16:06:28.821ZYESiGEM Design LeagueNOhttps://video.igem.org/w/4pBv7ndGumYsHUQjdsPZwshttps://video.igem.org/lazy-static/thumbnails/909ff25f-7ecc-43aa-a41d-3904f55fb883.jpgFireblighters (2022) - Project PromotionFireblighters (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/1b9766c9-42a5-4494-80c5-bc52d69106e2/f25411f3-f31c-438f-b80d-d56224e229b3-master.m3u8https://video.igem.org/videos/embed/4pBv7ndGumYsHUQjdsPZws1190152022-10-25T16:07:02.253ZYESiGEM Design LeagueNOhttps://video.igem.org/w/xeDk6uPtJmNAUZWX3p74kDhttps://video.igem.org/lazy-static/thumbnails/d706af04-ddee-4824-93d7-5b3f2f34af1d.jpgIberopuebla (2022) - Project PromotionIberopuebla (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/fcf2f8f0-73d9-4dc8-b91c-c81fe32f883f/e3339cd4-8f44-406c-b3f0-43e93c57d323-master.m3u8https://video.igem.org/videos/embed/xeDk6uPtJmNAUZWX3p74kD1140152022-10-25T16:07:30.966ZYESiGEM Design LeagueNOhttps://video.igem.org/w/fAmHdJ7dC8REg2C7ZqiYRchttps://video.igem.org/lazy-static/thumbnails/5908ca5a-2214-441b-b650-22a3d39b5466.jpgTsinghua: Run Sperm Run (2022) - Team Presentation [English]**Title:** Run Sperm Run **Description:** Reproductive health has become a hotspot of concern since recent years have witnessed a continuous decline in fertility rates in China. Among all physiological factors, low sperm quality is considered as the major cause. Currently, sperm quality can be examined through hospital appointments which are time-consuming and may place psychological burden on patients, adding additional challenge to tackling the issue of reproductive health. Therefore, our team has proposed a novel diagnostic method to test sperm quality for household use. Our chip-based product is designed to measure sperm motility and fertility simultaneously, and present results in a visual way. We believe our home-use sperm quality test chip could contribute to self-examination and large-scale preliminary disease screening of sperm quality, increasing the medical attendance rate of reproductive diseases. Perhaps the hardest part of solving reproductive health dilemma is to confront it directly. We hope our product will be the first step. [Wiki](https://2022.igem.wiki/tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/762bfe2a-14b8-45a0-9535-7d9963e4484d/810ba2cb-9e41-484f-b01c-ddc0d6c6ad78-master.m3u8https://video.igem.org/videos/embed/fAmHdJ7dC8REg2C7ZqiYRc818062022-10-25T16:15:45.860ZYES2022 Team PresentationsNOhttps://video.igem.org/w/csQZb1Hir2wy1E5QgXny5Xhttps://video.igem.org/lazy-static/thumbnails/1fee8962-863d-49db-a965-999b0e76ef51.jpgiGEM Anahuac (2022) - Project PromotioniGEM Anahuac (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/5cd40d43-8716-4602-b69e-51160056d9b7/99679865-6ddc-49ba-9d25-678a1954bdb8-master.m3u8https://video.igem.org/videos/embed/csQZb1Hir2wy1E5QgXny5X1190122022-10-25T16:14:40.870ZYESiGEM Design LeagueNOhttps://video.igem.org/w/87iJCvakdr5g6C5NiLeY1ihttps://video.igem.org/lazy-static/thumbnails/0b77a247-0c68-4caa-9341-46d675a80355.jpgiGEM Biotech EC (2022) - Project PromotioniGEM Biotech EC (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/39915ce1-74cb-4321-83ee-129035b1fdd9/af6348dc-e21b-4733-bce3-73ccd2f08b6b-master.m3u8https://video.igem.org/videos/embed/87iJCvakdr5g6C5NiLeY1i1210172022-10-25T16:17:48.007ZYESiGEM Design LeagueNOhttps://video.igem.org/w/dg8RF195S43ZCQ9G331fXnhttps://video.igem.org/lazy-static/thumbnails/3ca1f929-5d08-496d-b375-fe21f13ce32c.jpgIGEM UNMSM (2022) - Project PromotionIGEM UNMSM (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/634aa983-6e6c-4be5-a21b-899f2ca673e3/934ce018-f2ec-4f6a-9198-a9cdccc26ec0-master.m3u8https://video.igem.org/videos/embed/dg8RF195S43ZCQ9G331fXn90072022-10-25T16:25:53.434ZYESiGEM Design LeagueNOhttps://video.igem.org/w/54rwfkAa1x962rmPk1nn8jhttps://video.igem.org/lazy-static/thumbnails/fdc3ce83-f7f0-4c43-91a8-8480800d619c.jpgISP Panafins (2022) - Project PromotionISP Panafins (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/20df839e-5f3a-498b-8b6e-a78b78f3c484/0ff683ea-97bc-4205-8cc7-133e364337c6-master.m3u8https://video.igem.org/videos/embed/54rwfkAa1x962rmPk1nn8j780122022-10-25T16:28:03.760ZYESiGEM Design LeagueNOhttps://video.igem.org/w/sGdBJmRSwCJa2ttRxJW7Vuhttps://video.igem.org/lazy-static/thumbnails/7e3be2b7-b236-4e66-a27f-280b4348fb3f.jpgOllin SynBio (2022) - Project PromotionOllin SynBio (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/d82b2180-bfd9-48ce-a5a0-070c03c31926/55e944ce-3b1c-481b-acd0-64a47018b6f4-master.m3u8https://video.igem.org/videos/embed/sGdBJmRSwCJa2ttRxJW7Vu79092022-10-25T16:29:45.137ZYESiGEM Design LeagueNOhttps://video.igem.org/w/exijEWe8Es3djyD3Pby3fuhttps://video.igem.org/lazy-static/thumbnails/c5d880d9-fead-424f-a2cb-e1939f985ea2.jpgSynbioven (2022) - Project PromotionSynbioven (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/6da588d2-7a14-484b-bb06-3920ed444290/2a30da8f-d1c2-4c0b-b3cb-21fa293f3613-master.m3u8https://video.igem.org/videos/embed/exijEWe8Es3djyD3Pby3fu120012022-10-25T16:54:20.914ZYESiGEM Design LeagueNOhttps://video.igem.org/w/fSojS6Dwfsx3ttRTnkZNCghttps://video.igem.org/lazy-static/thumbnails/4c024d1f-e8db-4324-976c-9906e26ae1a0.jpgSYNTHETIC BIOBOTS (2022) - Project PromotionSYNTHETIC BIOBOTS (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/7868e35e-311d-4222-99a0-747eb546f027/dd03b8cd-df48-42c4-a19d-6c95efd8d4f2-master.m3u8https://video.igem.org/videos/embed/fSojS6Dwfsx3ttRTnkZNCg1250302022-10-25T17:17:23.200ZYESiGEM Design LeagueNOhttps://video.igem.org/w/wCqmvHKE8kJ518mKnVaSEohttps://video.igem.org/lazy-static/thumbnails/2d6e8091-c1b5-4506-af1a-af5c8a0f4184.jpgAustin_UTexas: ARROWE: Acinetobacter baylyi Recognition and Recombination of Whi... (2022) - Team...**Title:** ARROWE: Acinetobacter baylyi Recognition and Recombination of White Nose Syndrome and eDNA **Description:** Acinetobacter baylyi ADP1 is a bacterium capable of taking up DNA directly from the environment (eDNA). Despite its natural transformation capabilities, it is not widely-used as a chassis in synthetic biology. For our project, we developed a detection system capable of recognizing any eDNA featuring ADP1 as a chassis. ARROWE specifically focuses on detecting eDNA from Pseudogymnoascus destructans, a fungus that causes White Nose Syndrome in bats. This system works via homologous recombination, which occurs when P. destructans eDNA is detected, producing a fluorescent signal and yielding resistance to azidothymidine. We also constructed and tested ADP1 strains engineered to detect the nptII and blaTEM-1 antibiotic resistance genes to demonstrate other applications of our approach and characterize parameters affecting DNA detection. We hope ARROWE will draw attention to ADP1 s potential and serve as a model for future ADP1-centric projects. [Wiki](https://2022.igem.wiki/austin-utexas)https://static.igem.org/peertube/streaming-playlists/hls/f807f1a9-ceae-4a6a-b2cf-bad954857552/f49f4dbb-6cee-488a-bb8b-8f82034e726b-master.m3u8https://video.igem.org/videos/embed/wCqmvHKE8kJ518mKnVaSEo900062022-10-26T03:25:48.507ZYES2022 Team PresentationsNOhttps://video.igem.org/w/j1boNDE1HLaySkWCrVzacthttps://video.igem.org/lazy-static/thumbnails/30eeea82-8c10-47c6-bd25-386b6c0be96c.jpgWorldshaper-Nanjing: Probiotics-Livestock-Grassland: Dual Healing for Gut and Soil (2022) - Team ...**Title:** Probiotics-Livestock-Grassland: Dual Healing for Gut and Soil **Description:** The long-existing problem of soil salinization has worsened in recent years. As a novel class of microbial feed additives, Clostridium tyrobutyricum has great development prospects. We wish to tackle the worsening issue while contributing to the reduction of antibiotic use. We improved the oxygen tolerance of C. tyrobutyricum during feed additive production and after emission into the environment, through heterologous expression of DNA protection proteins Dps together with pyruvate dehydrogenase AceE, to increase the yield of its additives and develop its application as an acid fertilizer used for the solutions for soil salinization. We wish our project could help reduce the overusing of antibiotics and meanwhile further to improve the soil salinization problems, achieving dual healing for gut and soil. [Wiki](https://2022.igem.wiki/worldshaper-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/91cae6a1-94d9-4b9a-b8a8-c8e959902ff5/5058475b-aec3-4592-86ae-de8da697125e-master.m3u8https://video.igem.org/videos/embed/j1boNDE1HLaySkWCrVzact7930152022-10-26T03:42:04.103ZYES2022 Team PresentationsNOhttps://video.igem.org/w/kRrvtrMagSUdbDP4VnxzZbhttps://video.igem.org/lazy-static/thumbnails/2889f988-e8d1-4dc0-80ee-09a557259b30.jpgNAU-CHINA: Liver Monitor: Rapid cell-free detection of liver disease based on bi... (2022) - Team...**Title:** Liver Monitor: Rapid cell-free detection of liver disease based on bile acids level **Description:** Liver disease is prevalent in the world nowadays. About 2 million people die of it every year. Many of them suffer from further aggravation or even death due to the untimely detection of liver disease. Bile acid, a very popular index to detect liver disease, is used as the substrate of our system. We choose Bss to remove the 3-sulphate sulfate groups of bile acids from the urina sanguinis. So, they can be identified by FXR and activate it. Then, the activated FXR will combine with RXR, driving the downstream ddRFP-A1 and ddRFP-B1 dimerize and emit fluorescence. Finally, we use cell-free system to quantitatively detect urine bile acid content to achieve efficient and home-based detection of liver-related diseases. [Wiki](https://2022.igem.wiki/nau-china)https://static.igem.org/peertube/streaming-playlists/hls/a0c4cc9a-64e6-4d34-8411-ce8c76272f20/d23f1936-e218-4f9f-a9f8-89717ce32e9e-master.m3u8https://video.igem.org/videos/embed/kRrvtrMagSUdbDP4VnxzZb899092022-10-26T07:34:37.271ZYES2022 Team PresentationsNOhttps://video.igem.org/w/pBtr5rJ28nGPCCjcfeyhLPhttps://video.igem.org/lazy-static/thumbnails/ebc382a0-7224-4314-9726-910e48ff4fcc.jpgUESTC-BioTech: Chlipid: a highly productive biofuel factory (2022) - Team Presentation [English]**Title:** Chlipid: a highly productive biofuel factory **Description:** Climate crisis caused by combustion of fossil fuels has been aggravating for a long time, and the world is desperate for more sustainable, clean, renewable energy. Here in Chlipid, by utilizing transcriptome analysis and CRISPR/Cas9 system to modify the metabolic pathways of Chlamydomonas reinhardtii, we expect to cultivate genetically engineered microalgae for more efficient lipid production for biofuel manufacture. We tried out 7 different pressure conditions to culture C. reinhardtii, and detect their lipid production, growth path and differential gene expression to locate target genes that can be knocked out to form a mutant bank. We construct CRISPR off-target model and Genome-scale Metabolic models to stimulate and direct experiment designs. We also produce a series of lectures called Algae classes and design a card game called Algal Lab, to enrich our scientific education activities. We collaborate with more than 10 iGEM teams to fulfil the project and broaden our impact. [Wiki](https://2022.igem.wiki/uestc-biotech)https://static.igem.org/peertube/streaming-playlists/hls/bf36207d-caa5-4f93-bcb1-1148b20293b7/5a5dcdb8-3cf2-49fa-9e1c-8cc0bab9e04b-master.m3u8https://video.igem.org/videos/embed/pBtr5rJ28nGPCCjcfeyhLP893072022-10-26T07:45:08.892ZYES2022 Team PresentationsNOhttps://video.igem.org/w/cZuSjfUEmgmUQtMMHeUauQhttps://video.igem.org/lazy-static/thumbnails/5374781e-19c5-467d-adae-71d1f8fc864f.jpgSuZhou_Union: Luzhou-flavor liquor cell factory (2022) - Team Presentation [English]**Title:** Luzhou-flavor liquor cell factory **Description:** Baijiu is one of the most famous distilled spirits in the world, among which Luzhou-flavor liquor is the most popular and best-selling liquor among various flavors, accounting for more than 70% of China s liquor production. This project will build an engineering strain of Saccharomyces cerevisiae, increase the content of ethyl caproate, an aroma substance, improve the quality of Luzhou-flavor liquor, reduce food consumption, shorten fermentation time, and optimize the production process of Luzhou-flavor liquor. By constructing an overexpression vector by overexpressing ACC1, FAS1, and FAS2 genes, using lithium acetate transformation technology to transfer it into yeast cells, and using gas chromatography to analyze ethyl acetate after fermentation. This project can improve ethanol and produce a large amount of ethyl hexanoate, which can improve the quality of liquor, and the flavor and taste of liquor are improved. Key Words: Luzhou-flavor liquor, overexpression [Wiki](https://2022.igem.wiki/suzhou-union)https://static.igem.org/peertube/streaming-playlists/hls/611bb5db-3b76-4324-b376-b57c061c9a1c/cb76cc50-497c-4047-b7d2-2de9fac94bbd-master.m3u8https://video.igem.org/videos/embed/cZuSjfUEmgmUQtMMHeUauQ899052022-10-26T08:00:11.268ZYES2022 Team PresentationsNOhttps://video.igem.org/w/tiUN9xb33BhFN3PNGemdaohttps://video.igem.org/lazy-static/thumbnails/a8b3cb54-1f2e-49b8-ad44-86b2eb463af8.jpgUESTC-BioTech: Judging Session (2022)[Wiki](https://2022.igem.wiki/uestc-biotech)https://static.igem.org/peertube/streaming-playlists/hls/dd26eca4-2649-4554-b3f2-f5206b3a1cc0/82153603-3666-4294-b786-947153643c51-master.m3u8https://video.igem.org/videos/embed/tiUN9xb33BhFN3PNGemdao18000672022-10-26T08:43:40.050ZYES2022 Judging SessionsNOhttps://video.igem.org/w/euTUgtks4AkoYsDKdY3ywnhttps://video.igem.org/lazy-static/thumbnails/58e13306-54fe-4895-a6f7-f81eac83f3a7.jpgImperial_College_London: Judging Session (2022)[Wiki](https://2022.igem.wiki/imperial-college-london)https://static.igem.org/peertube/streaming-playlists/hls/6d4f9d05-3178-48d8-abe0-edde923829f1/6fbde451-e6b8-4efe-ab20-efbe36796308-master.m3u8https://video.igem.org/videos/embed/euTUgtks4AkoYsDKdY3ywn18000702022-10-26T08:50:52.522ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jUD4yyEcEa1mqFHsMB4fyzhttps://video.igem.org/lazy-static/thumbnails/76ac85ed-4178-4989-be17-4d9a078c63be.jpgTU_Braunschweig: Judging Session (2022)[Wiki](https://2022.igem.wiki/tu-braunschweig)https://static.igem.org/peertube/streaming-playlists/hls/991e0306-bc67-44f3-8d88-d426aa6ccc21/7b6352a5-0f94-4d6a-aee9-19b4ea4b8a3d-master.m3u8https://video.igem.org/videos/embed/jUD4yyEcEa1mqFHsMB4fyz18000322022-10-26T09:22:30.463ZYES2022 Judging SessionsNOhttps://video.igem.org/w/c3J9YXUTKKQR2kjeM72NiDhttps://video.igem.org/lazy-static/thumbnails/0c3157a1-c946-4fec-87c8-dad0a5145e95.jpgShanghai_United: Judging Session (2022)[Wiki](https://2022.igem.wiki/shanghai-united)https://static.igem.org/peertube/streaming-playlists/hls/5975fddd-4eda-41ed-9eab-b5a6ed13655f/0d53835c-5e90-4a4d-b90e-c5ffdb420ffe-master.m3u8https://video.igem.org/videos/embed/c3J9YXUTKKQR2kjeM72NiD18000372022-10-26T09:26:18.672ZYES2022 Judging SessionsNOhttps://video.igem.org/w/m7TeurPspD2NsUEyrmgzmbhttps://video.igem.org/lazy-static/thumbnails/b37c3e1d-5011-4aa7-a610-4713b5ce3671.jpgPINGHE: Judging Session (2022)[Wiki](https://2022.igem.wiki/pinghe)https://static.igem.org/peertube/streaming-playlists/hls/a2eccf1c-6c60-49c1-b60d-7205560d9f6e/f6244595-9383-4caa-935c-c9814342bb58-master.m3u8https://video.igem.org/videos/embed/m7TeurPspD2NsUEyrmgzmb18000342022-10-26T09:29:49.204ZYES2022 Judging SessionsNOhttps://video.igem.org/w/m5DWLp4YmTs8jeHUwsRHghhttps://video.igem.org/lazy-static/thumbnails/d8faa30f-c6f2-48ec-8ef6-1f03ce002953.jpgPatras_Medicine: Judging Session (2022)[Wiki](https://2022.igem.wiki/patras-medicine)https://static.igem.org/peertube/streaming-playlists/hls/a29d21da-bb69-4a23-be38-cec0cdcc6cc2/e1902b3b-0995-4aac-936b-901052705920-master.m3u8https://video.igem.org/videos/embed/m5DWLp4YmTs8jeHUwsRHgh180001092022-10-26T09:33:22.990ZYES2022 Judging SessionsNOhttps://video.igem.org/w/84Hhi1MHRS3iffQGvmcvehhttps://video.igem.org/lazy-static/thumbnails/eb124f57-8bf9-43ed-bde9-bcd689f33c40.jpgLZU-HS-China-C: Judging Session (2022)[Wiki](https://2022.igem.wiki/lzu-hs-china-c)https://static.igem.org/peertube/streaming-playlists/hls/3934a467-414d-4cc6-9a41-311ce659f82e/14a32f9f-a365-4795-83d9-a40bee82a455-master.m3u8https://video.igem.org/videos/embed/84Hhi1MHRS3iffQGvmcveh180001212022-10-26T09:36:54.404ZYES2022 Judging SessionsNOhttps://video.igem.org/w/bejgGHWiXMmKByuakmru4Rhttps://video.igem.org/lazy-static/thumbnails/6241dd95-5e46-427e-a4ee-e1a31441941b.jpgCityU_HongKong: Judging Session (2022)[Wiki](https://2022.igem.wiki/cityu-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/52d750ba-731a-46dc-8886-014ed4e64717/0b26fe90-fd67-49cd-8b75-268c27e6e531-master.m3u8https://video.igem.org/videos/embed/bejgGHWiXMmKByuakmru4R18000272022-10-26T09:40:25.057ZYES2022 Judging SessionsNOhttps://video.igem.org/w/oVWkdSWZZn3kB7Zc8UNmKxhttps://video.igem.org/lazy-static/thumbnails/d3908373-55b4-4be0-a7df-821fe03e08c0.jpgGXU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/gxu-china)https://static.igem.org/peertube/streaming-playlists/hls/b9b0f408-6dd3-4477-ad2c-50a76d1f5dbd/47e72d15-bcab-4e49-a499-25c9247b1919-master.m3u8https://video.igem.org/videos/embed/oVWkdSWZZn3kB7Zc8UNmKx18000782022-10-26T09:43:57.296ZYES2022 Judging SessionsNOhttps://video.igem.org/w/omsyYTyiAmcmJDBuhmKDRFhttps://video.igem.org/lazy-static/thumbnails/347f9c27-f887-4874-9a84-e8af3cf823cf.jpgGEMS_Taiwan: Judging Session (2022)[Wiki](https://2022.igem.wiki/gems-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/b5044ca6-fc06-41fa-90c6-6f3ada50e4ed/1f38338a-4665-4d4f-83ac-c328e0a11f29-master.m3u8https://video.igem.org/videos/embed/omsyYTyiAmcmJDBuhmKDRF18000472022-10-26T09:47:26.360ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hzMdBc7WKpJ1mhzWGLrgXohttps://video.igem.org/lazy-static/thumbnails/6ce35cf0-16cf-43b8-9ad8-6a6738a8860e.jpgJiangnan-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/jiangnan-china)https://static.igem.org/peertube/streaming-playlists/hls/8649a110-6997-4726-9030-bd5c0ad96350/ca8c00e4-4bd7-4dcf-a329-ced8a82ccca9-master.m3u8https://video.igem.org/videos/embed/hzMdBc7WKpJ1mhzWGLrgXo18000362022-10-26T09:50:58.504ZYES2022 Judging SessionsNOhttps://video.igem.org/w/qrS5t9giR3J6EBza2pfEhAhttps://video.igem.org/lazy-static/thumbnails/401b803b-bfa5-4630-8a60-daacd39ac971.jpgGuangxi-U-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/guangxi-u-china)https://static.igem.org/peertube/streaming-playlists/hls/c5f7c87d-12db-4e93-a5a5-a030c7401d1a/05260960-f1ce-4f95-be6a-d7281aefbfbe-master.m3u8https://video.igem.org/videos/embed/qrS5t9giR3J6EBza2pfEhA18000412022-10-26T10:34:10.871ZYES2022 Judging SessionsNOhttps://video.igem.org/w/vtYzP8E67ZVAnNGdoSDVzChttps://video.igem.org/lazy-static/thumbnails/dc656436-4395-46d6-a205-9a08f928fefb.jpgIISc-Bengaluru: Judging Session (2022)[Wiki](https://2022.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/eec0f932-8fa4-4841-beb9-9299f6af4fba/64c4a599-5900-4b58-bf3d-83c12ff11875-master.m3u8https://video.igem.org/videos/embed/vtYzP8E67ZVAnNGdoSDVzC18000632022-10-26T10:37:40.520ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pH897XpQErrjNAckXQinwrhttps://video.igem.org/lazy-static/thumbnails/5b605ba1-c63c-4929-b5c8-4eca011065c4.jpgNanjing_NFLS: Judging Session (2022)[Wiki](https://2022.igem.wiki/nanjing-nfls)https://static.igem.org/peertube/streaming-playlists/hls/c000157c-73b3-4762-a1e8-9ad1f9bb6821/34322964-040c-4f20-af29-f95a97c5eb8d-master.m3u8https://video.igem.org/videos/embed/pH897XpQErrjNAckXQinwr18000502022-10-26T10:41:11.820ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3619yN87khKxJ9LECN4wh3https://video.igem.org/lazy-static/thumbnails/70c11962-6994-460a-9b18-192bb53ba6c4.jpgLINKS_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/links-china)https://static.igem.org/peertube/streaming-playlists/hls/10e51651-7db9-47ba-9c0d-938612029b32/15e02ee3-7058-44e8-a0de-80a4d86724fc-master.m3u8https://video.igem.org/videos/embed/3619yN87khKxJ9LECN4wh318000782022-10-26T10:44:42.623ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fuAZf2NM4Ugecztt2KapSfhttps://video.igem.org/lazy-static/thumbnails/48ee75f0-10a1-46f8-9e92-f2760b054560.jpgLinkoping_Sweden: Judging Session (2022)[Wiki](https://2022.igem.wiki/linkoping-sweden)https://static.igem.org/peertube/streaming-playlists/hls/755e5408-eeb2-4863-9336-5ad72a6c5b96/46a83f87-7733-4d14-8798-b44210c17d63-master.m3u8https://video.igem.org/videos/embed/fuAZf2NM4Ugecztt2KapSf18000202022-10-26T10:48:13.390ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2sfuGyL9KkghALYmvBzsfThttps://video.igem.org/lazy-static/thumbnails/05c3ad26-1f16-46af-a60f-2ad7e293b1ae.jpgBUCT-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/buct-china)https://static.igem.org/peertube/streaming-playlists/hls/0bc368d0-4d3b-45d2-a826-8f0c666a257f/4b73a11e-77b6-44ee-b394-daef4260e1c1-master.m3u8https://video.igem.org/videos/embed/2sfuGyL9KkghALYmvBzsfT18000312022-10-26T10:51:41.191ZYES2022 Judging SessionsNOhttps://video.igem.org/w/7NMkSAncH9MB56NbXHDRtphttps://video.igem.org/lazy-static/thumbnails/ea79b478-5775-4835-95c6-daca1be6b20e.jpgDeNovoCastrians: Judging Session (2022)[Wiki](https://2022.igem.wiki/denovocastrians)https://static.igem.org/peertube/streaming-playlists/hls/371efd1f-c15e-4e06-b8e6-98e5193ff151/2c57babb-7cd7-45b6-ad7e-bf384f6ec064-master.m3u8https://video.igem.org/videos/embed/7NMkSAncH9MB56NbXHDRtp18000112022-10-26T10:55:10.217ZYES2022 Judging SessionsNOhttps://video.igem.org/w/x34j2VzC9pmqXA5gJTcbMnhttps://video.igem.org/lazy-static/thumbnails/42e83892-baa7-483c-a871-31003d97e249.jpgSZPT-CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/szpt-china)https://static.igem.org/peertube/streaming-playlists/hls/fb54d390-8fb4-4f37-91a2-0638b7358397/de630350-5400-475f-8fca-60a1b9efa744-master.m3u8https://video.igem.org/videos/embed/x34j2VzC9pmqXA5gJTcbMn18000292022-10-26T11:07:53.368ZYES2022 Judging SessionsNOhttps://video.igem.org/w/qpmhy6WtGVc1iwqWrPFGjzhttps://video.igem.org/lazy-static/thumbnails/da1e4e70-394b-4ffe-bb8d-9834aa11cbb3.jpgNTHU_Taiwan: Judging Session (2022)[Wiki](https://2022.igem.wiki/nthu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/c59def95-7cbf-4b46-b374-e87619fffdfd/04f494a5-8c4d-471e-af59-f145c4d979ac-master.m3u8https://video.igem.org/videos/embed/qpmhy6WtGVc1iwqWrPFGjz18000542022-10-26T11:11:21.519ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fsY15nq6NqmLTFDTWYwRqShttps://video.igem.org/lazy-static/thumbnails/5b5bcca0-44f2-4b36-a7ed-90c7ac5ae488.jpgTsinghua: Judging Session (2022)[Wiki](https://2022.igem.wiki/tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/7523ca91-c027-48c3-b970-0147aa0fedb6/51979ff8-3816-4431-a404-ef563b88b37e-master.m3u8https://video.igem.org/videos/embed/fsY15nq6NqmLTFDTWYwRqS18000942022-10-26T11:18:14.280ZYES2022 Judging SessionsNOhttps://video.igem.org/w/v9eAnmWBbnaZsn5ocDztxbhttps://video.igem.org/lazy-static/thumbnails/f036cb16-6cf6-46df-9a92-ad00c1913c64.jpgUMA_MALAGA: Judging Session (2022)[Wiki](https://2022.igem.wiki/uma-malaga)https://static.igem.org/peertube/streaming-playlists/hls/ebff5917-3657-4e15-a865-64844579c2b4/4e1673e4-883d-4a88-be1e-5087133a8e1c-master.m3u8https://video.igem.org/videos/embed/v9eAnmWBbnaZsn5ocDztxb18000192022-10-26T11:21:51.392ZYES2022 Judging SessionsNOhttps://video.igem.org/w/8cQBqxCBj1bdiEWtJFTj9Vhttps://video.igem.org/lazy-static/thumbnails/b1d42a13-b832-4391-abda-b80defcaa933.jpgASIJ_Tokyo: Judging Session (2022)[Wiki](https://2022.igem.wiki/asij-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/3a571c09-e1c9-4005-8718-67f71c702df5/13f68067-3b1f-40f5-8f43-e05584b53186-master.m3u8https://video.igem.org/videos/embed/8cQBqxCBj1bdiEWtJFTj9V18000462022-10-26T11:25:22.109ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hDhThqWaAL2uNedf2MM2tthttps://video.igem.org/lazy-static/thumbnails/cb180b2c-58b8-4a2a-9877-6e1b40f54932.jpgNJXDF-CHN: Judging Session (2022)[Wiki](https://2022.igem.wiki/njxdf-chn)https://static.igem.org/peertube/streaming-playlists/hls/86c724af-9769-45fa-9d8a-edf39bac3455/df519e0d-eb7f-488a-a9b8-95c1fdadf990-master.m3u8https://video.igem.org/videos/embed/hDhThqWaAL2uNedf2MM2tt18000182022-10-26T11:33:31.448ZYES2022 Judging SessionsNOhttps://video.igem.org/w/37UDThKjC3MgX9PjaPjXTvhttps://video.igem.org/lazy-static/thumbnails/182621be-57cc-40a3-85b0-b9691b374597.jpgGoettingen: Judging Session (2022)[Wiki](https://2022.igem.wiki/goettingen)https://static.igem.org/peertube/streaming-playlists/hls/11293048-f8df-464f-8bb1-8b41e8299dc7/28a80963-d3e2-4bba-b55c-772e971a0d45-master.m3u8https://video.igem.org/videos/embed/37UDThKjC3MgX9PjaPjXTv1800072022-10-26T12:02:13.231ZYES2022 Judging SessionsNOhttps://video.igem.org/w/k98uSAaCgVbjJANLz8GSWihttps://video.igem.org/lazy-static/thumbnails/76d870ac-0861-41c0-a5d7-d42d91205d36.jpgBIT: Judging Session (2022)[Wiki](https://2022.igem.wiki/bit)https://static.igem.org/peertube/streaming-playlists/hls/9b003493-df7f-477a-ba42-86d28d883ca5/f4c91f73-52f0-4a96-ac01-a45c1a866fdd-master.m3u8https://video.igem.org/videos/embed/k98uSAaCgVbjJANLz8GSWi18000262022-10-26T12:05:43.325ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3fTztLPiQjURRkvAKAFqxohttps://video.igem.org/lazy-static/thumbnails/ce352a64-4430-4309-a15a-41c2c2fb8fe3.jpgHKU_HongKong: Judging Session (2022)[Wiki](https://2022.igem.wiki/hku-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/124679c6-f38e-4066-a23b-0515c2a97294/d8a26c0f-71cb-4cdb-82d1-1d3880c16ac8-master.m3u8https://video.igem.org/videos/embed/3fTztLPiQjURRkvAKAFqxo18000822022-10-26T12:09:19.535ZYES2022 Judging SessionsNOhttps://video.igem.org/w/taJazo7dPAB7pAW891jXMVhttps://video.igem.org/lazy-static/thumbnails/b334bc67-e2d8-40c6-ad4c-31e31453fa8f.jpgHNU_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/hnu-china)https://static.igem.org/peertube/streaming-playlists/hls/dc026c44-07c3-4a50-ad68-47f0c5404bb3/4a2b1f52-f247-4ed3-ba53-1d5600ce8297-master.m3u8https://video.igem.org/videos/embed/taJazo7dPAB7pAW891jXMV18000182022-10-26T12:12:57.069ZYES2022 Judging SessionsNOhttps://video.igem.org/w/9YAwGPuwXQEVZWrU2C2Si4https://video.igem.org/lazy-static/thumbnails/a545b58b-4e4d-43f2-a595-7fb92e23e14c.jpgHZAU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/hzau-china)https://static.igem.org/peertube/streaming-playlists/hls/48b00a35-cf2c-4e1a-a1e0-782522086a6d/2a798853-5c2a-45dc-9001-c8e5e3649f26-master.m3u8https://video.igem.org/videos/embed/9YAwGPuwXQEVZWrU2C2Si418000352022-10-26T12:17:18.141ZYES2022 Judging SessionsNOhttps://video.igem.org/w/u1Dbomcy1CDS1Vb1vTA2ZYhttps://video.igem.org/lazy-static/thumbnails/a1b6dbd9-9ff1-44a4-9f1e-68915109d77f.jpgLZU-CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/lzu-china)https://static.igem.org/peertube/streaming-playlists/hls/e2d6cb7d-c3ab-4e66-846b-7e52b70f6ee6/69cacb3e-7a29-4ce5-bbd1-ecf458503bb8-master.m3u8https://video.igem.org/videos/embed/u1Dbomcy1CDS1Vb1vTA2ZY18000672022-10-26T12:20:54.048ZYES2022 Judging SessionsNOhttps://video.igem.org/w/uH4m7m9fxJMip95Df52MQihttps://video.igem.org/lazy-static/thumbnails/f011343f-37cb-41be-9613-ded683278317.jpgShym_BIL_NIS: Judging Session (2022)[Wiki](https://2022.igem.wiki/shym-bil-nis)https://static.igem.org/peertube/streaming-playlists/hls/e87b7085-69d9-44ba-ac15-cbad2ab992ad/194e2fa4-3b65-4877-8cc4-4bd5ecbb9472-master.m3u8https://video.igem.org/videos/embed/uH4m7m9fxJMip95Df52MQi18000222022-10-26T12:24:31.445ZYES2022 Judging SessionsNOhttps://video.igem.org/w/n9FK1v2Kqun5XpY1hByb3Shttps://video.igem.org/lazy-static/thumbnails/d59dd9ea-5809-43e1-8e8f-ec4617066e4f.jpgUniofBath: Judging Session (2022)[Wiki](https://2022.igem.wiki/uniofbath)https://static.igem.org/peertube/streaming-playlists/hls/ab465a85-f763-4bf0-87f6-a5c9ac5c9d3e/2a3f1155-6308-48e6-8e55-faa05023cee5-master.m3u8https://video.igem.org/videos/embed/n9FK1v2Kqun5XpY1hByb3S18000232022-10-26T12:28:22.291ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5wGkbLnyPDdMJYtuikcVPYhttps://video.igem.org/lazy-static/thumbnails/b72d71f9-e5f9-439a-b2d7-eefb9eef8442.jpgThailand_RIS: Judging Session (2022)[Wiki](https://2022.igem.wiki/thailand-ris)https://static.igem.org/peertube/streaming-playlists/hls/24adb8f3-cce6-4d97-a751-9ca7932c355a/4c77bb0d-77d9-4fb6-ac52-f5bb446f280f-master.m3u8https://video.igem.org/videos/embed/5wGkbLnyPDdMJYtuikcVPY18000412022-10-26T12:32:05.957ZYES2022 Judging SessionsNOhttps://video.igem.org/w/o3zF8Cas83oPeSQ2HSKsEWhttps://video.igem.org/lazy-static/thumbnails/f31ef06c-aca5-4de8-bb8c-5a4e008de7d9.jpgTuebingen: Judging Session (2022)[Wiki](https://2022.igem.wiki/tuebingen)https://static.igem.org/peertube/streaming-playlists/hls/b2854a73-179b-4046-8975-ef89bcd79532/4aa0a344-254f-477f-8529-930caefc7888-master.m3u8https://video.igem.org/videos/embed/o3zF8Cas83oPeSQ2HSKsEW1800082022-10-26T12:39:21.320ZYES2022 Judging SessionsNOhttps://video.igem.org/w/a6qSjdzeUSxFWmAu7RrjSxhttps://video.igem.org/lazy-static/thumbnails/ec812a7a-0e58-4c93-a67e-64b06261837b.jpgSuZhou_Union: Judging Session (2022)[Wiki](https://2022.igem.wiki/suzhou-union)https://static.igem.org/peertube/streaming-playlists/hls/49a44abb-5eb8-4bc0-a8b2-578e4ac61fb3/18dbca5e-ac72-4ef5-be67-88588b90ea4f-master.m3u8https://video.igem.org/videos/embed/a6qSjdzeUSxFWmAu7RrjSx18000172022-10-26T12:43:06.140ZYES2022 Judging SessionsNOhttps://video.igem.org/w/bQFujGYmMrp3m2BnCNu5knhttps://video.igem.org/lazy-static/thumbnails/fc11b8f6-728d-4835-9a50-8131ece5e00b.jpgNFLS_Nanjing: Judging Session (2022)[Wiki](https://2022.igem.wiki/nfls-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/57c76c50-5eef-47ce-b9bb-857c4c5d6473/a3795c69-af06-47b1-a75d-21fba9ffc169-master.m3u8https://video.igem.org/videos/embed/bQFujGYmMrp3m2BnCNu5kn18000222022-10-26T12:35:47.631ZYES2022 Judging SessionsNOhttps://video.igem.org/w/1EXqb863u6J4aGbFwSK3X7https://video.igem.org/lazy-static/thumbnails/53458d5e-8c8e-4bba-b017-38e1a019796b.jpgHUST-China: REE Miner (2022) - Team Presentation [English]**Title:** REE Miner **Description:** REE Miner is an optimized absorption kit of rare earth elements. As a type of nonrenewable resource, rare earth elements are of great significance to human society, resulting in a substantial global demand. It is estimated that 1 ton of rare earth elements requires an average of 263 tons of water to extract. In addition, the wastewater generated by rare earth mining can have negative effects on our health and the environment. To solve this issue, we designed a brand-new kit based on the project accomplished in 2017. We chose two validated systems, the pmr system and the gols system, to express the functional protein, with both systems modified to detect particular ions in wastewater. The four proteins oprf, Sitag, LanM, and dLBT combine to form a rare earth element concentrator, enabling REE Miner to purify the environment while recollecting these valuable resources. [Wiki](https://2022.igem.wiki/hust-china)https://static.igem.org/peertube/streaming-playlists/hls/05706a42-8865-4766-a36c-9d8e74be7c1c/2340c3a3-c730-47d5-9c85-8a10337d4a67-master.m3u8https://video.igem.org/videos/embed/1EXqb863u6J4aGbFwSK3X78990512022-10-26T13:30:41.772ZYES2022 Team PresentationsNOhttps://video.igem.org/w/kJYQGQxCooeNPV5jB4zCtxhttps://video.igem.org/lazy-static/thumbnails/6797f239-2647-4f63-8e64-561680c0c2e3.jpgCUHKSZ: Judging Session (2022)[Wiki](https://2022.igem.wiki/cuhksz)https://static.igem.org/peertube/streaming-playlists/hls/9fdde6cf-9ac7-48fb-91bc-e1b4f7ebb005/3595930f-e497-4ba1-87ba-9aa3b3aba750-master.m3u8https://video.igem.org/videos/embed/kJYQGQxCooeNPV5jB4zCtx18000122022-10-26T14:31:22.114ZYES2022 Judging SessionsNOhttps://video.igem.org/w/wMPTcwKRqs3sGRPo2cRctKhttps://video.igem.org/lazy-static/thumbnails/d3c8d861-e33b-442e-93dc-35ab7a3c6e31.jpgGYHS: Judging Session (2022)[Wiki](https://2022.igem.wiki/gyhs)https://static.igem.org/peertube/streaming-playlists/hls/f9582363-6488-42cf-96fd-175eca10edcd/821beb58-29db-4362-aca8-2ceac993ced3-master.m3u8https://video.igem.org/videos/embed/wMPTcwKRqs3sGRPo2cRctK18000102022-10-26T14:35:15.155ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4cubdyhgwFHjPuYBEVYvxVhttps://video.igem.org/lazy-static/thumbnails/7f7d5825-0fad-4c8a-ab0b-79ab74ba0b91.jpgGreatBay_SCIE: Judging Session (2022)[Wiki](https://2022.igem.wiki/greatbay-scie)https://static.igem.org/peertube/streaming-playlists/hls/19e5f62c-8ac4-405e-9a44-4248088f6fdf/53e5c2b8-bfdb-441a-8c21-c0e110d663b3-master.m3u8https://video.igem.org/videos/embed/4cubdyhgwFHjPuYBEVYvxV18000602022-10-26T14:38:57.214ZYES2022 Judging SessionsNOhttps://video.igem.org/w/e8UYXCq8XP6hzePHj1HG5Vhttps://video.igem.org/lazy-static/thumbnails/fbb2d69f-cbfe-4dae-909d-5ee2da1ede3c.jpgLatvia-Riga: Judging Session (2022)[Wiki](https://2022.igem.wiki/latvia-riga)https://static.igem.org/peertube/streaming-playlists/hls/6a61a90a-c284-4c0f-8e96-72e89c985125/23442825-539e-4554-b407-5cb7a0d362b6-master.m3u8https://video.igem.org/videos/embed/e8UYXCq8XP6hzePHj1HG5V1800092022-10-26T14:42:52.382ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3i6YFZPM8AkyTfjkNTgKoLhttps://video.igem.org/lazy-static/thumbnails/53a2f8db-1fcc-41b9-91c7-b4be906d0f5d.jpgHUST-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/hust-china)https://static.igem.org/peertube/streaming-playlists/hls/12959ae9-0189-4751-bbdc-1ea7667ca73c/e64fc8cb-cf6a-44c7-afa4-e90cacd002da-master.m3u8https://video.igem.org/videos/embed/3i6YFZPM8AkyTfjkNTgKoL18000722022-10-26T14:46:38.519ZYES2022 Judging SessionsNOhttps://video.igem.org/w/kn1fUnkfUD3enCJmFEVT8Chttps://video.igem.org/lazy-static/thumbnails/c79708f6-57ca-42b4-bd63-b74fb124661a.jpgHiZJU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/hizju-china)https://static.igem.org/peertube/streaming-playlists/hls/9ccc697c-ad11-4494-88b1-354a58c655ee/440e6452-478f-4848-93f4-b6c7763ad108-master.m3u8https://video.igem.org/videos/embed/kn1fUnkfUD3enCJmFEVT8C1800092022-10-26T14:50:15.123ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ddDzFNPRiypwbNfjAxJA6Jhttps://video.igem.org/lazy-static/thumbnails/338ce5f5-aad6-40ef-9168-3fb0aae4203a.jpgLund: Judging Session (2022)[Wiki](https://2022.igem.wiki/lund)https://static.igem.org/peertube/streaming-playlists/hls/62f1bfc8-4c2f-4389-aab7-82eebe6dc454/8e1287a1-c9dc-45e2-a2b4-17470898387e-master.m3u8https://video.igem.org/videos/embed/ddDzFNPRiypwbNfjAxJA6J18000172022-10-26T14:53:43.690ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ktxYu7j16Ey4sVxDdsoWovhttps://video.igem.org/lazy-static/thumbnails/7d9ab362-fbe6-41c1-a756-2753e0ad18ae.jpgSheffield: Judging Session (2022)[Wiki](https://2022.igem.wiki/sheffield)https://static.igem.org/peertube/streaming-playlists/hls/9db66bc2-0340-42d2-aaab-32e715a7b301/c1b4912d-4bd2-4294-8c1b-8d2b9473e495-master.m3u8https://video.igem.org/videos/embed/ktxYu7j16Ey4sVxDdsoWov18000112022-10-26T14:57:17.511ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pisUQATcxprb3yXvh1wozohttps://video.igem.org/lazy-static/thumbnails/389b0a22-659a-4d10-a113-c889a0f7e6ec.jpgLZU-HS-Pro-B: Judging Session (2022)[Wiki](https://2022.igem.wiki/lzu-hs-pro-b)https://static.igem.org/peertube/streaming-playlists/hls/bcb26af2-7819-4798-ab6f-328435203e18/5850f521-f7fa-41c6-b3c2-2da9e3b977e4-master.m3u8https://video.igem.org/videos/embed/pisUQATcxprb3yXvh1wozo18000322022-10-26T15:01:13.976ZYES2022 Judging SessionsNOhttps://video.igem.org/w/okq3FSJ4TLwqCNk8Nm5tdFhttps://video.igem.org/lazy-static/thumbnails/6171df22-96c1-47a9-938c-b84e9dfd99af.jpgWageningen_UR: Judging Session (2022)[Wiki](https://2022.igem.wiki/wageningen-ur)https://static.igem.org/peertube/streaming-playlists/hls/b4df0050-ab15-4182-8045-a5d0d243af8b/ae04a845-6396-44a1-b799-fc1486e5d634-master.m3u8https://video.igem.org/videos/embed/okq3FSJ4TLwqCNk8Nm5tdF18000292022-10-26T15:04:49.139ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hPbsK8Xpp7mURABDZfHM3Lhttps://video.igem.org/lazy-static/thumbnails/8e60ec55-12d2-4f48-85e6-3df1f41e5820.jpgZJUT-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/zjut-china)https://static.igem.org/peertube/streaming-playlists/hls/88289f64-c17e-44e5-b6ae-3fec111eca9c/8e2eb444-8e0a-4acd-b682-142e6690301a-master.m3u8https://video.igem.org/videos/embed/hPbsK8Xpp7mURABDZfHM3L18000432022-10-26T15:08:31.472ZYES2022 Judging SessionsNOhttps://video.igem.org/w/dDqc43Gs2mywjtStquEU6bhttps://video.igem.org/lazy-static/thumbnails/3a446db5-6d26-49e9-83bb-3887eb6cd0eb.jpgXHD-Wuhan-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/xhd-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/66671764-328d-4217-86a5-6b2a50963fec/7ebaeb16-e1df-4df2-9deb-25aecfd7b532-master.m3u8https://video.igem.org/videos/embed/dDqc43Gs2mywjtStquEU6b18000132022-10-26T15:11:58.650ZYES2022 Judging SessionsNOhttps://video.igem.org/w/u7mdboHNbgabvpWqqpgKhJhttps://video.igem.org/lazy-static/thumbnails/d6c140b2-86f9-4a06-bf38-aa84ca87ffc1.jpgChalmers-Gothenburg: Judging Session (2022)[Wiki](https://2022.igem.wiki/chalmers-gothenburg)https://static.igem.org/peertube/streaming-playlists/hls/e3a2ccc9-40e3-418f-afaa-b70a0ca04a9e/cf1b8e45-88bb-4086-80d3-94574390d10b-master.m3u8https://video.igem.org/videos/embed/u7mdboHNbgabvpWqqpgKhJ1800062022-10-26T15:15:39.623ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rdfbC5oGduCt1UzRLUpiD3https://video.igem.org/lazy-static/thumbnails/080faeee-60da-47e9-a856-d5c396fb02a0.jpgStockholm: Judging Session (2022)[Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/cc2a21e5-8e2d-433f-87cd-a593a9b3ece0/c4214b4e-2a9e-4f30-a653-4de16ca0139f-master.m3u8https://video.igem.org/videos/embed/rdfbC5oGduCt1UzRLUpiD318000152022-10-26T15:19:31.259ZYES2022 Judging SessionsNOhttps://video.igem.org/w/mv3LA66zgZXRrQj3nirhDzhttps://video.igem.org/lazy-static/thumbnails/1c71b7fe-8c5a-4b69-8ddb-b0849fc7ba12.jpgExeter: Judging Session (2022)[Wiki](https://2022.igem.wiki/exeter)https://static.igem.org/peertube/streaming-playlists/hls/a6050c80-727d-4be1-a4e3-967bd3733c5b/eb599ef3-8472-4729-ba67-3fc3972eef32-master.m3u8https://video.igem.org/videos/embed/mv3LA66zgZXRrQj3nirhDz18000392022-10-26T15:23:30.831ZYES2022 Judging SessionsNOhttps://video.igem.org/w/kxrz6PvjRCTixasTiAiTSWhttps://video.igem.org/lazy-static/thumbnails/33e7c26b-620f-440c-8196-a3698703233f.jpgTechnion-Israel: Judging Session (2022)[Wiki](https://2022.igem.wiki/technion-israel)https://static.igem.org/peertube/streaming-playlists/hls/9e41732d-58d9-4f36-9b7c-0508667aecde/86542ffa-f069-44b7-bfae-d5cb5f783e3a-master.m3u8https://video.igem.org/videos/embed/kxrz6PvjRCTixasTiAiTSW18000352022-10-26T15:27:03.949ZYES2022 Judging SessionsNOhttps://video.igem.org/w/oyLshAXDfHTdk3B5cYzzLihttps://video.igem.org/lazy-static/thumbnails/3224efc5-5cd0-44cb-953e-1f945cf1bfdd.jpgShanghaiTech_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/shanghaitech-china)https://static.igem.org/peertube/streaming-playlists/hls/b6bc3f15-ae69-43e1-b566-a48040db14b5/ac58ac5b-18f6-47e8-8997-dff2749f4bcc-master.m3u8https://video.igem.org/videos/embed/oyLshAXDfHTdk3B5cYzzLi18000622022-10-26T15:30:35.739ZYES2022 Judging SessionsNOhttps://video.igem.org/w/wywxCCA5oLrwu4E89LSzt1https://video.igem.org/lazy-static/thumbnails/690412b0-ad4b-4c83-9f79-63bb9aa2c347.jpgBioplus-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bioplus-china)https://static.igem.org/peertube/streaming-playlists/hls/f77cc8e1-b2fc-4292-a347-17b227943512/97cedddb-15d9-4a63-b8ec-032140161dce-master.m3u8https://video.igem.org/videos/embed/wywxCCA5oLrwu4E89LSzt118000172022-10-26T15:53:03.580ZYES2022 Judging SessionsNOhttps://video.igem.org/w/qf29NQk3f3Brpign2pwrh4https://video.igem.org/lazy-static/thumbnails/7c939fdc-92bf-4b3d-bcba-f974df8ae0d6.jpgGDSYZX: Judging Session (2022)[Wiki](https://2022.igem.wiki/gdsyzx)https://static.igem.org/peertube/streaming-playlists/hls/c4507352-4913-4d2b-8752-5fcc54ba82a7/d50236dd-ddca-48ea-b1dd-82c4fb907bb0-master.m3u8https://video.igem.org/videos/embed/qf29NQk3f3Brpign2pwrh418000182022-10-26T16:21:14.823ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4QtXjyZgKXf487nYzXnqpYhttps://video.igem.org/lazy-static/thumbnails/2f714482-8a33-4f62-a540-9aee10da2c96.jpgAachen: Judging Session (2022)[Wiki](https://2022.igem.wiki/aachen)https://static.igem.org/peertube/streaming-playlists/hls/1f105815-89e2-4f5f-9eb8-75b0e8c200a6/50590023-ca7f-4040-a230-aa6744faa043-master.m3u8https://video.igem.org/videos/embed/4QtXjyZgKXf487nYzXnqpY18000332022-10-26T16:24:47.830ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jZixBfcubJa3jymVBUTHQxhttps://video.igem.org/lazy-static/thumbnails/18ca0aa3-735d-44ad-8229-ede760eecb39.jpgHainanU_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/hainanu-china)https://static.igem.org/peertube/streaming-playlists/hls/99c4b407-3d0f-49cc-b25a-bd7d51ec791b/24df997e-311f-4840-8f6c-c4fcb5d78718-master.m3u8https://video.igem.org/videos/embed/jZixBfcubJa3jymVBUTHQx18000302022-10-26T16:32:03.563ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rfpc6J23FVnLxPGrbAi6Uqhttps://video.igem.org/lazy-static/thumbnails/f554968d-5653-4fb5-ab8f-90d3a5625760.jpgPatras_Uni_Hellas: Judging Session (2022)[Wiki](https://2022.igem.wiki/patras-uni-hellas)https://static.igem.org/peertube/streaming-playlists/hls/cc772be4-e18f-4d3c-885c-db1eb06fdbdc/08cc6c4a-23cd-4758-ae32-f5547e0ff7de-master.m3u8https://video.igem.org/videos/embed/rfpc6J23FVnLxPGrbAi6Uq18000162022-10-26T16:28:19.522ZYES2022 Judging SessionsNOhttps://video.igem.org/w/iStEcsypFkphGc3x9XPEy8https://video.igem.org/lazy-static/thumbnails/817acbc6-6f5f-4c7e-a1c6-6024a0311a95.jpgNEU_CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/neu-china)https://static.igem.org/peertube/streaming-playlists/hls/90b79746-d263-40c2-9527-82ab7b30dd27/19b08e48-a0d0-4a42-b468-102ef84f87e7-master.m3u8https://video.igem.org/videos/embed/iStEcsypFkphGc3x9XPEy818000372022-10-26T16:36:07.211ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hbp79LriqhoEvCHxS7mQvBhttps://video.igem.org/lazy-static/thumbnails/4802476a-5f07-449d-a2f5-2a73926a6edf.jpgUCAS-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/ucas-china)https://static.igem.org/peertube/streaming-playlists/hls/8305e557-d7ed-4ce3-b2d7-463f92a57e75/091aad9c-11db-4c1d-af6b-be9eccfde92d-master.m3u8https://video.igem.org/videos/embed/hbp79LriqhoEvCHxS7mQvB18000192022-10-26T16:39:43.886ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4QtevjPs8oWQzRShLn9r6Ehttps://video.igem.org/lazy-static/thumbnails/a5d6ee2e-6190-4125-a8c9-d824b77d2695.jpgUPNAvarra_Spain: Judging Session (2022)[Wiki](https://2022.igem.wiki/upnavarra-spain)https://static.igem.org/peertube/streaming-playlists/hls/1f0fe658-311a-4180-8e98-85414400b0dc/7c1c7680-c4a7-432f-92fc-ec8bd2667443-master.m3u8https://video.igem.org/videos/embed/4QtevjPs8oWQzRShLn9r6E18000252022-10-26T16:43:15.969ZYES2022 Judging SessionsNOhttps://video.igem.org/w/aC8fwpYunLy2HAboFBkEXMhttps://video.igem.org/lazy-static/thumbnails/0e574e38-ec7c-4391-a7b1-e18f734bbc5e.jpgEvry_Paris-Saclay: Judging Session (2022)[Wiki](https://2022.igem.wiki/evry-paris-saclay)https://static.igem.org/peertube/streaming-playlists/hls/4ded7dec-81e0-4376-b908-358d1d19c803/ac57e95d-5477-4604-a588-370e5ef70766-master.m3u8https://video.igem.org/videos/embed/aC8fwpYunLy2HAboFBkEXM18000122022-10-26T16:46:44.408ZYES2022 Judging SessionsNOhttps://video.igem.org/w/xmGzBJnVgK3QMRAyotBehShttps://video.igem.org/lazy-static/thumbnails/b611b92f-85c3-480d-a66d-ace595eb45e5.jpgBulgaria: Judging Session (2022)[Wiki](https://2022.igem.wiki/bulgaria)https://static.igem.org/peertube/streaming-playlists/hls/fdef2e92-3957-4969-b210-227dce944e8e/a8f57217-0682-4855-83c8-b32668d7f788-master.m3u8https://video.igem.org/videos/embed/xmGzBJnVgK3QMRAyotBehS18000252022-10-26T16:50:17.305ZYES2022 Judging SessionsNOhttps://video.igem.org/w/bBkyJ6xrQH1Qn14ozaeRBghttps://video.igem.org/lazy-static/thumbnails/cee67ac0-85d8-483e-9055-c508833eff87.jpgMakerere_Uganda: Judging Session (2022)[Wiki](https://2022.igem.wiki/makerere-uganda)https://static.igem.org/peertube/streaming-playlists/hls/55ea79b6-6b4c-4185-9a71-d328f0999a19/ec13a13f-4e82-454b-be8c-b390f5940de6-master.m3u8https://video.igem.org/videos/embed/bBkyJ6xrQH1Qn14ozaeRBg18000622022-10-26T16:53:51.163ZYES2022 Judging SessionsNOhttps://video.igem.org/w/wDTpaB9zGMJdskjeivJ27Thttps://video.igem.org/lazy-static/thumbnails/f1a4218f-a693-47f1-a044-d49d1b0452df.jpgSeoul_Korea: Judging Session (2022)[Wiki](https://2022.igem.wiki/seoul-korea)https://static.igem.org/peertube/streaming-playlists/hls/f83c5af4-ee7a-42ea-b795-e50556bbd8f3/463b78f9-8a2c-43fd-8643-00837c6eefa8-master.m3u8https://video.igem.org/videos/embed/wDTpaB9zGMJdskjeivJ27T18000692022-10-26T16:57:29.746ZYES2022 Judging SessionsNOhttps://video.igem.org/w/xrwkdGqbMbKfY8obpS4dnohttps://video.igem.org/lazy-static/thumbnails/3bf9a8c3-0c94-4f8e-bd0d-68234ef9e522.jpgZhejiang_United: Judging Session (2022)[Wiki](https://2022.igem.wiki/zhejiang-united)https://static.igem.org/peertube/streaming-playlists/hls/fe9b95c7-755a-4cf7-950c-ae755bd75c00/024458a8-efb3-4e69-88fa-4694ccf07db4-master.m3u8https://video.igem.org/videos/embed/xrwkdGqbMbKfY8obpS4dno18000172022-10-26T17:01:06.171ZYES2022 Judging SessionsNOhttps://video.igem.org/w/q3WggpcYNz9QjQNuWL38vPhttps://video.igem.org/lazy-static/thumbnails/a46bf5e5-63f4-467c-a750-8dcaa908d960.jpgUTokyo: Judging Session (2022)[Wiki](https://2022.igem.wiki/utokyo)https://static.igem.org/peertube/streaming-playlists/hls/c2c4419a-8578-44fe-b73a-0cc7bb594b8d/251639ae-1726-4bb4-b209-07b48e13ce91-master.m3u8https://video.igem.org/videos/embed/q3WggpcYNz9QjQNuWL38vP18000822022-10-26T17:04:39.892ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jpcoiRSWPYwf3WzNedGJtvhttps://video.igem.org/lazy-static/thumbnails/dad14724-1d33-497e-af72-ffd9200c2038.jpgKCIS_Xiugang_Taipei: NObesity: a Test for Local Solutions to Solve Obesity (2022) - Team Presenta...**Title:** NObesity: a Test for Local Solutions to Solve Obesity **Description:** Obesity is a severe threat to the world with the rocketing obese population. Our project aims to reduce obesity rates by identifying supplements that possess environmental-stress-related-phenotype-mitigating properties with a similar model as viability assay for cancer drug testing research using engineered yeast with overexpression SNF1(the homologous yeast gene of AMPK, a metabolism sensor gene in humans). We tested the effectiveness of our product with supplements from local products in Taiwan proven to have anti-obesity and metabolism-boosting properties such as green tea and brown algae, containing Catechins and Fucoxanthin respectively. With our design, possible synergistic effects between overexpression SNF1 and nutrient samples could mitigate the environmental-stress-related-phenotypes more significantly, allowing us to effectively test the possible environmental-stress-related-phenotype-mitigating properties of supplements. [Wiki](https://2022.igem.wiki/kcis-xiugang-taipei)https://static.igem.org/peertube/streaming-playlists/hls/95019e5d-47cf-4e7c-9828-8061fb6de643/62bf6420-ac54-487b-8032-9d11302f3fe0-master.m3u8https://video.igem.org/videos/embed/jpcoiRSWPYwf3WzNedGJtv8360102022-10-26T17:07:07.015ZYES2022 Team PresentationsNOhttps://video.igem.org/w/en3cJuk3DnCVt26EVwV3Ythttps://video.igem.org/lazy-static/thumbnails/fd385dad-7200-4263-bf1e-79030ab8acfb.jpgIISER-Tirupati_India: Judging Session (2022)[Wiki](https://2022.igem.wiki/iiser-tirupati-india)https://static.igem.org/peertube/streaming-playlists/hls/6c36c769-b1bf-486c-b3bf-d3a3042fd85b/9cf9a15c-5605-4b8c-9efa-61678c031ab5-master.m3u8https://video.igem.org/videos/embed/en3cJuk3DnCVt26EVwV3Yt18000402022-10-26T18:34:04.715ZYES2022 Judging SessionsNOhttps://video.igem.org/w/28JNwAN4XFZdXZ83cRvuQWhttps://video.igem.org/lazy-static/thumbnails/997534e1-f2f1-445c-a21d-35cff34764e0.jpgCHINA-FAFU: Judging Session (2022)[Wiki](https://2022.igem.wiki/china-fafu)https://static.igem.org/peertube/streaming-playlists/hls/092db90c-39af-45dc-881f-9913f8fd6c7e/08cdb391-3501-4e3d-83dc-fedf8370d2a3-master.m3u8https://video.igem.org/videos/embed/28JNwAN4XFZdXZ83cRvuQW18000402022-10-26T18:37:51.571ZYES2022 Judging SessionsNOhttps://video.igem.org/w/xpoY7SeGFnsmop49fbd1Nghttps://video.igem.org/lazy-static/thumbnails/888ff0dc-671f-461b-b906-1632383e44cc.jpgDTU-Denmark: Judging Session (2022)[Wiki](https://2022.igem.wiki/dtu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/fe4f8f36-d449-4cf9-871f-399756f0aa3b/67aedc65-af93-483f-84b7-64dda51d1cb9-master.m3u8https://video.igem.org/videos/embed/xpoY7SeGFnsmop49fbd1Ng18000142022-10-26T18:41:23.749ZYES2022 Judging SessionsNOhttps://video.igem.org/w/7puUHh9j6rConL2wBVcqafhttps://video.igem.org/lazy-static/thumbnails/943d63b9-39a9-402d-9680-07eff032110d.jpgBNSC_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bnsc-china)https://static.igem.org/peertube/streaming-playlists/hls/33dec11e-0b7b-4ab3-a774-17a68481e260/8ee48078-206f-4f78-b8af-edf51f0bebc7-master.m3u8https://video.igem.org/videos/embed/7puUHh9j6rConL2wBVcqaf1800092022-10-26T18:44:53.633ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ptsQz9BCNT74GLJFvb9m83https://video.igem.org/lazy-static/thumbnails/f9d31081-4156-41aa-be65-d1a58d742cb5.jpgCAFA_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/cafa-china)https://static.igem.org/peertube/streaming-playlists/hls/be17cf64-abaa-4735-893b-38126a6a8428/96977045-8fa8-4f73-b031-b3877df706fa-master.m3u8https://video.igem.org/videos/embed/ptsQz9BCNT74GLJFvb9m8318000132022-10-26T18:48:23.787ZYES2022 Judging SessionsNOhttps://video.igem.org/w/oSNnFmFxzgmMKm9hsKysAthttps://video.igem.org/lazy-static/thumbnails/4d632cba-f604-4ade-8609-7a58f357c2b7.jpgIISER-Pune-India: Judging Session (2022)[Wiki](https://2022.igem.wiki/iiser-pune-india)https://static.igem.org/peertube/streaming-playlists/hls/b940d15f-ebef-42be-ad5b-9682a291b467/974c3bc1-6c19-4191-a62c-6bfcfddf56bf-master.m3u8https://video.igem.org/videos/embed/oSNnFmFxzgmMKm9hsKysAt18000312022-10-26T18:52:01.548ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jpUubirHRuAQDFJNuu4fLQhttps://video.igem.org/lazy-static/thumbnails/a4600e70-0999-4621-ae07-838ceb294e43.jpgLZU-HS-Pro-A: Judging Session (2022)[Wiki](https://2022.igem.wiki/lzu-hs-pro-a)https://static.igem.org/peertube/streaming-playlists/hls/951af2b8-638c-4503-b5b9-52e496d4ad58/530530a5-b8cd-4df6-adc1-269130e94b0e-master.m3u8https://video.igem.org/videos/embed/jpUubirHRuAQDFJNuu4fLQ18000212022-10-26T18:55:34.969ZYES2022 Judging SessionsNOhttps://video.igem.org/w/u3eu49W6naPNXkkEj3t9byhttps://video.igem.org/lazy-static/thumbnails/2ffc2b45-bba7-4617-bb30-d26ad2b8a415.jpgJiangsu_United: Judging Session (2022)[Wiki](https://2022.igem.wiki/jiangsu-united)https://static.igem.org/peertube/streaming-playlists/hls/e30fadfd-10d2-4173-ae90-9f9086202b1c/119de902-e70e-49d3-ae4f-bcdcceddf005-master.m3u8https://video.igem.org/videos/embed/u3eu49W6naPNXkkEj3t9by1800082022-10-26T18:59:06.179ZYES2022 Judging SessionsNOhttps://video.igem.org/w/9pwg8XMFQuwHf8tSeK1gcphttps://video.igem.org/lazy-static/thumbnails/a3242921-6acd-4d0f-aeed-30d6425f7ed1.jpgTUDelft: Judging Session (2022)[Wiki](https://2022.igem.wiki/tudelft)https://static.igem.org/peertube/streaming-playlists/hls/4411dd6f-b9ce-429e-8b19-270515030d81/6f6eebee-0a40-43a7-991e-bc75bf62d18f-master.m3u8https://video.igem.org/videos/embed/9pwg8XMFQuwHf8tSeK1gcp18000212022-10-26T19:02:41.183ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3L1FzvQRQn2fwQatAQMXVXhttps://video.igem.org/lazy-static/thumbnails/b0d9524d-6f6c-4e5c-8e89-171f3eab4100.jpgMunich: Judging Session (2022)[Wiki](https://2022.igem.wiki/munich)https://static.igem.org/peertube/streaming-playlists/hls/16576c79-881b-4b21-9c83-e61027049d7d/9f7ab1c4-556a-4ee7-be11-6f7330a84511-master.m3u8https://video.igem.org/videos/embed/3L1FzvQRQn2fwQatAQMXVX18000772022-10-26T19:06:11.447ZYES2022 Judging SessionsNOhttps://video.igem.org/w/xuJpiEQ1sEhyUmpjqHpHpEhttps://video.igem.org/lazy-static/thumbnails/37d928fd-4faa-453c-84f4-ae8948646634.jpgNMU_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/nmu-china)https://static.igem.org/peertube/streaming-playlists/hls/ff0e414b-9c42-451f-b0c4-7309dc845648/54c8a313-56fe-44e2-94f0-fbfd5281a9c6-master.m3u8https://video.igem.org/videos/embed/xuJpiEQ1sEhyUmpjqHpHpE18000432022-10-26T19:10:08.240ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5HM7j77twGVZmpYfHesYAshttps://video.igem.org/lazy-static/thumbnails/0d3a5f68-cd0e-434b-9f96-07d050e8bae1.jpgKUAS_Korea: Judging Session (2022)[Wiki](https://2022.igem.wiki/kuas-korea)https://static.igem.org/peertube/streaming-playlists/hls/2639d938-3d44-4533-9044-c2dea6f5deae/e6c1f332-4c54-4046-ae17-88bfca2cfae0-master.m3u8https://video.igem.org/videos/embed/5HM7j77twGVZmpYfHesYAs1800072022-10-26T19:16:34.030ZYES2022 Judging SessionsNOhttps://video.igem.org/w/tBsfsepMvWfMKb6Mamw7kyhttps://video.igem.org/lazy-static/thumbnails/b4ec009a-bdd9-4777-bea2-93cfb2ac7361.jpgWorldshaper-HZBIOX: Judging Session (2022)[Wiki](https://2022.igem.wiki/worldshaper-hzbiox)https://static.igem.org/peertube/streaming-playlists/hls/df99f3d0-7867-40b0-8ac8-d13e599f2596/4473bfde-fde8-442e-af3c-92d0ece9ee2a-master.m3u8https://video.igem.org/videos/embed/tBsfsepMvWfMKb6Mamw7ky18000282022-10-26T19:26:04.710ZYES2022 Judging SessionsNOhttps://video.igem.org/w/bQD8778dcfRaWraLzLgNAyhttps://video.igem.org/lazy-static/thumbnails/e173a6b5-386a-43af-bbe2-1a15cfa5dff8.jpgWorldshaper-HZ: Judging Session (2022)[Wiki](https://2022.igem.wiki/worldshaper-hz)https://static.igem.org/peertube/streaming-playlists/hls/57c5f711-db46-43b3-81a8-acacc6756784/9faa029d-8435-4ed7-a6e3-e69d844c72e8-master.m3u8https://video.igem.org/videos/embed/bQD8778dcfRaWraLzLgNAy18000152022-10-26T19:35:54.614ZYES2022 Judging SessionsNOhttps://video.igem.org/w/8gTnw6Rbuu3b9kAV8LDvBChttps://video.igem.org/lazy-static/thumbnails/ff45eacf-1ec9-42f3-85f7-ab2db9c4fc89.jpgLZU-HS-China-B: Judging Session (2022)[Wiki](https://2022.igem.wiki/lzu-hs-china-b)https://static.igem.org/peertube/streaming-playlists/hls/3ae7c922-94ff-41ea-b09a-af9a9dae2e4e/1261290e-8cba-48aa-9389-b1679c9bb8d0-master.m3u8https://video.igem.org/videos/embed/8gTnw6Rbuu3b9kAV8LDvBC18000192022-10-26T23:06:24.282ZYES2022 Judging SessionsNOhttps://video.igem.org/w/vC9QK9vfJw3CPT6T8sxWv7https://video.igem.org/lazy-static/thumbnails/6f97f127-2801-43e9-9b73-d7df51459170.jpgKorea_HS: Judging Session (2022)[Wiki](https://2022.igem.wiki/korea-hs)https://static.igem.org/peertube/streaming-playlists/hls/efe53eb5-850b-4b91-a42d-684992700e48/c6a978c5-834c-4e81-8863-eae4743b4c27-master.m3u8https://video.igem.org/videos/embed/vC9QK9vfJw3CPT6T8sxWv718000542022-10-26T23:16:21.751ZYES2022 Judging SessionsNOhttps://video.igem.org/w/p5Qa2XSTiBLS5w1Ftw9o3vhttps://video.igem.org/lazy-static/thumbnails/96048e94-8529-4a03-9cfe-dc141518b5f7.jpgEPFL: Judging Session (2022)[Wiki](https://2022.igem.wiki/epfl)https://static.igem.org/peertube/streaming-playlists/hls/baeed75f-5ce1-4158-b42e-04315ca0f469/9224805b-7f4b-47df-8bca-f7d9226b031e-master.m3u8https://video.igem.org/videos/embed/p5Qa2XSTiBLS5w1Ftw9o3v18000372022-10-26T23:35:27.822ZYES2022 Judging SessionsNOhttps://video.igem.org/w/njdGZbdkcrLMRfZCNfux8Uhttps://video.igem.org/lazy-static/thumbnails/dc1c7b7c-32d2-4bf0-ab5d-0bcc47981360.jpgNCKU_Tainan: Judging Session (2022)[Wiki](https://2022.igem.wiki/ncku-tainan)https://static.igem.org/peertube/streaming-playlists/hls/ac9b2166-9e12-4cf8-975b-806c9be772a6/1c6466f5-5b97-4b88-ae5c-bb6d8efb1383-master.m3u8https://video.igem.org/videos/embed/njdGZbdkcrLMRfZCNfux8U18000442022-10-26T23:52:40.388ZYES2022 Judging SessionsNOhttps://video.igem.org/w/txZh1KguwUjrTR5WgJhoFUhttps://video.igem.org/lazy-static/thumbnails/0e4c5e93-41c9-42e8-954b-f3e4c081cc7c.jpgPatras: Judging Session (2022)[Wiki](https://2022.igem.wiki/patras)https://static.igem.org/peertube/streaming-playlists/hls/df1e192c-302d-4449-920f-33ec21208422/38959bf3-2bad-455a-a852-9f47b88a575f-master.m3u8https://video.igem.org/videos/embed/txZh1KguwUjrTR5WgJhoFU18000192022-10-27T00:01:50.397ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rMPoKTh3YENuC37NE11Czuhttps://video.igem.org/lazy-static/thumbnails/26df19a7-91e9-4999-a870-9f76753f7d15.jpgSUSTech_EMB: Judging Session (2022)[Wiki](https://2022.igem.wiki/sustech-emb)https://static.igem.org/peertube/streaming-playlists/hls/d0da2489-ba57-4289-80f5-e2de33151ee6/b5c032ed-9c50-4e1a-a258-7a27ef3b342a-master.m3u8https://video.igem.org/videos/embed/rMPoKTh3YENuC37NE11Czu18000152022-10-27T00:11:24.832ZYES2022 Judging SessionsNOhttps://video.igem.org/w/i21KVRPT5cVjbnbMJtLpQkhttps://video.igem.org/lazy-static/thumbnails/d8347c1a-8d08-4c09-a51d-addbedb5e1eb.jpgSesame_Shenzhen: Judging Session (2022)[Wiki](https://2022.igem.wiki/sesame-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/89cf9157-ebde-490f-b34c-5a01c250e03f/db730fe2-fecc-442b-a251-3d90e99bd42d-master.m3u8https://video.igem.org/videos/embed/i21KVRPT5cVjbnbMJtLpQk18000122022-10-27T00:21:00.653ZYES2022 Judging SessionsNOhttps://video.igem.org/w/sKiC6HUofLWKLt8158AKQ5https://video.igem.org/lazy-static/thumbnails/7c02cd49-ab96-4325-9d6b-39571bb54068.jpgUSTC: Judging Session (2022)[Wiki](https://2022.igem.wiki/ustc)https://static.igem.org/peertube/streaming-playlists/hls/d899728c-565d-450c-9fd0-e37fdcf0a3b0/543def6d-85d7-4ac8-8b50-4be805b8fa15-master.m3u8https://video.igem.org/videos/embed/sKiC6HUofLWKLt8158AKQ518000192022-10-27T00:30:57.876ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2P7Q7Wvz9sPhZUg2nVWJJ6https://video.igem.org/lazy-static/thumbnails/74dea3d1-aac6-40e4-a14a-7b42d4efd376.jpgVilnius-Lithuania: Judging Session (2022)[Wiki](https://2022.igem.wiki/vilnius-lithuania)https://static.igem.org/peertube/streaming-playlists/hls/0ead4e05-760d-4353-a2ca-7a86ceb22a11/27092508-f5a4-4987-b93d-7fb6da245592-master.m3u8https://video.igem.org/videos/embed/2P7Q7Wvz9sPhZUg2nVWJJ618000292022-10-27T00:40:50.030ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5c9qpfiXFJTL4FGagu4sDFhttps://video.igem.org/lazy-static/thumbnails/a3cad363-94b5-4fe9-938e-9a740336b047.jpgXJTLU-CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/xjtlu-china)https://static.igem.org/peertube/streaming-playlists/hls/21f2ecf1-08e1-4e65-a983-cb30f832b809/3bee7a32-4258-4c1d-83aa-b3991591a666-master.m3u8https://video.igem.org/videos/embed/5c9qpfiXFJTL4FGagu4sDF18000782022-10-27T00:50:52.294ZYES2022 Judging SessionsNOhttps://video.igem.org/w/cD7xcaffbeNJwyoveo8WQMhttps://video.igem.org/lazy-static/thumbnails/4647ce33-b1f9-48c7-8a99-0e0bcf8bcee9.jpgAthens: Judging Session (2022)[Wiki](https://2022.igem.wiki/athens)https://static.igem.org/peertube/streaming-playlists/hls/5e4312e5-5d32-4ee9-9484-a624ba2f507d/bb78beb9-176e-49cb-b516-9859f25d5b86-master.m3u8https://video.igem.org/videos/embed/cD7xcaffbeNJwyoveo8WQM18000272022-10-27T01:00:44.106ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jvfvEVjAHtyM9rXAxNqBFUhttps://video.igem.org/lazy-static/thumbnails/93cf8746-7838-48f5-9350-14ee84d26dd9.jpgCSU_CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/csu-china)https://static.igem.org/peertube/streaming-playlists/hls/95da021e-c7c5-4890-b50d-bda6915bc2f6/3120fe50-0c3d-4c0e-a20a-ee830aab7013-master.m3u8https://video.igem.org/videos/embed/jvfvEVjAHtyM9rXAxNqBFU18000152022-10-27T01:10:39.576ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fZRGNnVCtb4X1V1TLJK1Y7https://video.igem.org/lazy-static/thumbnails/02f1ca1e-0b52-4422-b637-d008a4a5b5ad.jpgSubCat_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/subcat-china)https://static.igem.org/peertube/streaming-playlists/hls/7973f78a-f64f-4397-a884-6b691e91554e/0b75da9e-5f23-414a-ae4e-8766ddcfee17-master.m3u8https://video.igem.org/videos/embed/fZRGNnVCtb4X1V1TLJK1Y718000332022-10-27T01:20:37.898ZYES2022 Judging SessionsNOhttps://video.igem.org/w/iuMa7XEQre3pf5ZbLDZpMThttps://video.igem.org/lazy-static/thumbnails/c34ecf57-9fb7-4de8-96e3-72729d91e946.jpgUSTC-Software: Judging Session (2022)[Wiki](https://2022.igem.wiki/ustc-software)https://static.igem.org/peertube/streaming-playlists/hls/8db0030d-185c-4e4b-a338-c020c7de4759/c272fe16-0b7b-4829-ae9f-757c3784e711-master.m3u8https://video.igem.org/videos/embed/iuMa7XEQre3pf5ZbLDZpMT18000142022-10-27T01:30:42.972ZYES2022 Judging SessionsNOhttps://video.igem.org/w/kAbYuG2v5BAmg2iVq5Ydf6https://video.igem.org/lazy-static/thumbnails/d0a89fe6-912a-49d0-8217-b0d54bc97eb4.jpgBNSC_China: ONCE: Advanced Synthetic Biology Platform for Industrialization (2022) - Team Present...**Title:** ONCE: Advanced Synthetic Biology Platform for Industrialization **Description:** BNSC_China is a team composed of iGEM alumni in China. We were ONCE iGEMers, and now we are more than an iGEM team. Our goal is to bring out an iGEM project from idea to industrialization, and finally change the world. After a thorough market and industry analysis, we noticed that the tide of biomanufacturing is just forming. Traditional development of a new synthetic biology product is time-consuming. However, to fit the fast-changing need of consumers, a fast R&D pipeline is required. To address this problem, we developed a CRISPR-based genetic manipulating toolkit for a fast-growing non-model organism, Vibrio natriegens. With these enabling technologies, we presented our first product, (-)-alpha-bisabolol, and achieved a yield significantly higher than E.coli. Beside (-)-alpha-bisabolol, a further business plan for food and cosmetics products is made and is coming true. ONCE iGEMers, more than an iGEM team. Together, we believe iGEMers ARE changing the world. [Wiki](https://2022.igem.wiki/bnsc-china)https://static.igem.org/peertube/streaming-playlists/hls/9ea3af8b-124c-40ab-83b1-228de10fa9a1/7ac2346d-57d1-4ea5-9bf0-3940536f249f-master.m3u8https://video.igem.org/videos/embed/kAbYuG2v5BAmg2iVq5Ydf67360222022-10-27T04:18:18.255ZYES2022 Team PresentationsNOhttps://video.igem.org/w/kk4AbdwH49JtL5hwnPEF4Shttps://video.igem.org/lazy-static/thumbnails/539b3bf2-5f47-4278-81e2-dc2a09c175b9.jpgCPU_Nanjing: Judging Session (2022)[Wiki](https://2022.igem.wiki/cpu-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/9c86fa66-100f-46ea-8548-2b4b25686adc/3b0b9371-e2b1-4da0-be92-3727535e76b8-master.m3u8https://video.igem.org/videos/embed/kk4AbdwH49JtL5hwnPEF4S18000332022-10-27T05:24:18.005ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2mTZmasRDw9diymNEuTTQshttps://video.igem.org/lazy-static/thumbnails/3a5e8faa-3881-46ac-91b9-4100c6865cf2.jpgDKU_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/dku-china)https://static.igem.org/peertube/streaming-playlists/hls/0b040da2-e8a8-4aa9-987c-03aff9f0fe1e/c5f17ee3-01aa-435f-9de3-e67235e6ee82-master.m3u8https://video.igem.org/videos/embed/2mTZmasRDw9diymNEuTTQs18000292022-10-27T05:35:06.264ZYES2022 Judging SessionsNOhttps://video.igem.org/w/syarHHYNachjPnK6w6jPCWhttps://video.igem.org/lazy-static/thumbnails/b1d33d9b-3dd9-4816-a276-4ef98318905d.jpgFujian_United: Judging Session (2022)[Wiki](https://2022.igem.wiki/fujian-united)https://static.igem.org/peertube/streaming-playlists/hls/d70b39bb-ff3e-4374-b561-0b2425f7889a/3db2acc2-3848-4a7b-9109-1426383afd12-master.m3u8https://video.igem.org/videos/embed/syarHHYNachjPnK6w6jPCW18000162022-10-27T06:03:13.674ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pPeSctm4PrwkCUTrS42nqZhttps://video.igem.org/lazy-static/thumbnails/3a32ec89-7bb8-4d04-b704-37c1780bdeb6.jpgKEYSTONE: Judging Session (2022)[Wiki](https://2022.igem.wiki/keystone)https://static.igem.org/peertube/streaming-playlists/hls/c0dab0f7-62bd-4f1d-9cdc-a9067ddeaff5/3bda80c7-5407-48bf-8e9c-7ec115c9fb67-master.m3u8https://video.igem.org/videos/embed/pPeSctm4PrwkCUTrS42nqZ18000142022-10-27T06:12:44.561ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2vnPj5jTgH7ABB2pG75CnEhttps://video.igem.org/lazy-static/thumbnails/6f1a9a7e-159d-4cc9-a9d6-67e0b1d7878f.jpgNEFU_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/nefu-china)https://static.igem.org/peertube/streaming-playlists/hls/0c332703-ee9c-41dc-8921-128ff7f96938/c9226e79-83f9-4cd6-9428-5c4e4f326d09-master.m3u8https://video.igem.org/videos/embed/2vnPj5jTgH7ABB2pG75CnE18000402022-10-27T06:23:24.878ZYES2022 Judging SessionsNOhttps://video.igem.org/w/egaV64PZi9RFZooA1kebRjhttps://video.igem.org/lazy-static/thumbnails/b041bfad-372c-46e6-ae6a-a939f33674ec.jpgRDFZ-CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/rdfz-china)https://static.igem.org/peertube/streaming-playlists/hls/6b6511d4-952c-42c1-b335-7c3aac7c5a4c/9ea4db76-919b-4f7f-894e-0db7127f74ce-master.m3u8https://video.igem.org/videos/embed/egaV64PZi9RFZooA1kebRj18000512022-10-27T06:33:02.529ZYES2022 Judging SessionsNOhttps://video.igem.org/w/uZibP4hmgZwQ2JstWiRRGGhttps://video.igem.org/lazy-static/thumbnails/f923dcee-c741-476c-beed-7910e4a0d8e0.jpgBIT-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bit-china)https://static.igem.org/peertube/streaming-playlists/hls/eabfde6e-056b-4fdf-b36c-430c6729da54/e2271765-cbd2-4552-b59b-8bcbb8bcb078-master.m3u8https://video.igem.org/videos/embed/uZibP4hmgZwQ2JstWiRRGG18000182022-10-27T06:43:39.746ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fpt8fdzKuQ1tkj99LbAn7Whttps://video.igem.org/lazy-static/thumbnails/a0e64c32-e353-4d58-a2b8-fcc878997d0e.jpgNNU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/nnu-china)https://static.igem.org/peertube/streaming-playlists/hls/74a6c3a7-683e-4706-ae9e-5c02c72f3af6/3a6990a1-96c9-4df8-a294-604b890cf469-master.m3u8https://video.igem.org/videos/embed/fpt8fdzKuQ1tkj99LbAn7W18000332022-10-27T06:53:42.171ZYES2022 Judging SessionsNOhttps://video.igem.org/w/oVZgX4HqLuGwdUXPpFypUihttps://video.igem.org/lazy-static/thumbnails/5564e043-b1e1-4191-ae24-3a9737ffde7d.jpgTongji_Software: Judging Session (2022)[Wiki](https://2022.igem.wiki/tongji-software)https://static.igem.org/peertube/streaming-playlists/hls/b9b2c46d-8365-4bb0-a54b-cb2bc962f925/57d57a97-ac9f-4f08-811f-7f95eacbe9ec-master.m3u8https://video.igem.org/videos/embed/oVZgX4HqLuGwdUXPpFypUi18000112022-10-27T07:03:28.147ZYES2022 Judging SessionsNOhttps://video.igem.org/w/xzTNJ8CXogzEHZQwvqXQBnhttps://video.igem.org/lazy-static/thumbnails/1a987e7a-7e3b-4463-93d2-598f755ed6cc.jpgTU_Dresden: Judging Session (2022)[Wiki](https://2022.igem.wiki/tu-dresden)https://static.igem.org/peertube/streaming-playlists/hls/ffc6c4eb-bd82-4d98-90d6-41a5dc3a507b/8d0e6509-cd83-4086-ae03-0cabf2081ea9-master.m3u8https://video.igem.org/videos/embed/xzTNJ8CXogzEHZQwvqXQBn18000372022-10-27T07:14:02.155ZYES2022 Judging SessionsNOhttps://video.igem.org/w/eANpsRZFXDpXBQCZwBTAHqhttps://video.igem.org/lazy-static/thumbnails/f1c28613-c32f-4713-992d-36b5ca56b169.jpgVirginia: Judging Session (2022)[Wiki](https://2022.igem.wiki/virginia)https://static.igem.org/peertube/streaming-playlists/hls/6e22b046-3da2-4617-a53e-738b1671b052/70af35f7-8945-4cf3-9bf5-4d4fac1453d7-master.m3u8https://video.igem.org/videos/embed/eANpsRZFXDpXBQCZwBTAHq18000472022-10-27T07:23:16.869ZYES2022 Judging SessionsNOhttps://video.igem.org/w/8HSizrMrhc2Sak3zdWdgY4https://video.igem.org/lazy-static/thumbnails/cab274bc-e4c3-4434-a112-2f4298ebc64f.jpgWorldshaper-NJBIOX: Judging Session (2022)[Wiki](https://2022.igem.wiki/worldshaper-njbiox)https://static.igem.org/peertube/streaming-playlists/hls/3e88772d-d4b5-42b3-bae4-64d8d876b0cf/f93c07ad-ffa6-472b-9f9e-d3366e399cb2-master.m3u8https://video.igem.org/videos/embed/8HSizrMrhc2Sak3zdWdgY418000522022-10-27T07:32:34.764ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2wcZfpnXeDXSYH7kf1PL4jhttps://video.igem.org/lazy-static/thumbnails/5911af0e-ee09-4c2e-afad-b521ee3e8817.jpgConcordia-Montreal: Judging Session (2022)[Wiki](https://2022.igem.wiki/concordia-montreal)https://static.igem.org/peertube/streaming-playlists/hls/0c50d6cb-0f6b-4595-a12d-1663cb3bbdc8/d4e08278-b60d-455c-a702-f4e3b371ab55-master.m3u8https://video.igem.org/videos/embed/2wcZfpnXeDXSYH7kf1PL4j18000242022-10-27T21:15:29.895ZYES2022 Judging SessionsNOhttps://video.igem.org/w/bGYtN3NYNFnVxPeLaJNvsGhttps://video.igem.org/lazy-static/thumbnails/38ef7310-9b67-4315-9bd2-b43a3f53ef6c.jpgINSA_Lyon1: Judging Session (2022)[Wiki](https://2022.igem.wiki/insa-lyon1)https://static.igem.org/peertube/streaming-playlists/hls/56b3f1a6-85cb-435e-bf66-2091091dba10/ff84ebcc-1e27-4977-9871-0e1c0d3f7fd3-master.m3u8https://video.igem.org/videos/embed/bGYtN3NYNFnVxPeLaJNvsG180001542022-10-27T21:25:37.303ZYES2022 Judging SessionsNOhttps://video.igem.org/w/adb6Pxmm26XFdZMFWEkKiVhttps://video.igem.org/lazy-static/thumbnails/c2b7aea2-03ad-4b3e-9621-3959773e5429.jpgBJEA_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bjea-china)https://static.igem.org/peertube/streaming-playlists/hls/4a9565d1-f5f3-4e99-913b-b578ea1fab73/b235fd1c-e408-43be-939c-7da7d93b71ff-master.m3u8https://video.igem.org/videos/embed/adb6Pxmm26XFdZMFWEkKiV18000142022-10-27T21:35:42.138ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2941hmEpjMULtMFQ2m1aj8https://video.igem.org/lazy-static/thumbnails/88b796a4-d35d-483f-9477-ab73e522719c.jpgOUC-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/ouc-china)https://static.igem.org/peertube/streaming-playlists/hls/0938f0cd-438e-4261-9a6d-a82301a3a5bf/a84c0271-a981-4c93-b1f7-a290a6e3f10d-master.m3u8https://video.igem.org/videos/embed/2941hmEpjMULtMFQ2m1aj818000172022-10-27T21:45:44.972ZYES2022 Judging SessionsNOhttps://video.igem.org/w/eRqaG6DCVbnikuookLwADBhttps://video.igem.org/lazy-static/thumbnails/5ac6067e-06f4-4daa-9b14-5fc0903f586d.jpgPeking: Judging Session (2022)[Wiki](https://2022.igem.wiki/peking)https://static.igem.org/peertube/streaming-playlists/hls/702d240c-16a2-48ba-94e6-f02ac89dd81d/27b7491f-1a87-409a-b9c0-b0c0a34ce230-master.m3u8https://video.igem.org/videos/embed/eRqaG6DCVbnikuookLwADB18000212022-10-27T21:55:45.546ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ocnWckTvZ1unuNL6tZ6DeVhttps://video.igem.org/lazy-static/thumbnails/7aa70ac6-f7a8-4697-ad5b-5eb0510bdcd7.jpgIISER_Mohali: Judging Session (2022)[Wiki](https://2022.igem.wiki/iiser-mohali)https://static.igem.org/peertube/streaming-playlists/hls/b3bfbfe2-5fde-4a8e-93e9-29a73c1b83d3/2dac7490-7847-4f32-ac60-fd4500ab5f57-master.m3u8https://video.igem.org/videos/embed/ocnWckTvZ1unuNL6tZ6DeV18000202022-10-27T22:06:06.355ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ea8CBdCtpLvXD6vyZh8pNUhttps://video.igem.org/lazy-static/thumbnails/fee74a7a-f573-4aed-983e-2d577babb3ce.jpgQueens_Canada: Judging Session (2022)[Wiki](https://2022.igem.wiki/queens-canada)https://static.igem.org/peertube/streaming-playlists/hls/6a8d330a-77d1-41d4-ae2c-e7c785af5514/fd940564-ed21-4d90-bc8f-382e7e655c36-master.m3u8https://video.igem.org/videos/embed/ea8CBdCtpLvXD6vyZh8pNU18000302022-10-27T22:16:00.372ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rDNZe8vXYZenyqZE6icPyDhttps://video.igem.org/lazy-static/thumbnails/c3946fad-cc54-432d-9bc3-16ae7b3568d5.jpgUZurich: Judging Session (2022)[Wiki](https://2022.igem.wiki/uzurich)https://static.igem.org/peertube/streaming-playlists/hls/cfbbf14a-e066-4ab3-bb55-ebdb6bf102e9/ac872442-d95c-4adf-aecd-680719b027a6-master.m3u8https://video.igem.org/videos/embed/rDNZe8vXYZenyqZE6icPyD180001092022-10-27T22:26:01.510ZYES2022 Judging SessionsNOhttps://video.igem.org/w/aB1ZtGyEDDn1pMTV5sZEoqhttps://video.igem.org/lazy-static/thumbnails/1864428e-9982-48a5-9baa-e34fcda49024.jpgWorldshaper-Shanghai: Judging Session (2022)[Wiki](https://2022.igem.wiki/worldshaper-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/4dc5e3ff-1251-4962-b9c7-0662b39a7334/19d55a24-eae5-4c7d-86d6-3267297e502d-master.m3u8https://video.igem.org/videos/embed/aB1ZtGyEDDn1pMTV5sZEoq18000152022-10-27T22:35:56.516ZYES2022 Judging SessionsNOhttps://video.igem.org/w/uBYr18dEvuNWspv4Qq199Dhttps://video.igem.org/lazy-static/thumbnails/00861bd1-83fa-4d3a-954b-e949f76c35e3.jpgKCIS_Xiugang_Taipei: Judging Session (2022)[Wiki](https://2022.igem.wiki/kcis-xiugang-taipei)https://static.igem.org/peertube/streaming-playlists/hls/e7c5b0f9-e5ce-4eaa-a2e1-552485d678d5/a59f782a-4a1f-4687-958b-13141d2653c3-master.m3u8https://video.igem.org/videos/embed/uBYr18dEvuNWspv4Qq199D18000732022-10-27T22:55:23.975ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ah9LTpGQ4jwmkoSD9x8uv4https://video.igem.org/lazy-static/thumbnails/916c4395-ede7-4a03-a5ef-acf58341e35a.jpgRS_Joint_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/rs-joint-china)https://static.igem.org/peertube/streaming-playlists/hls/4b238e2c-b309-4158-a7e9-f5e76b4527cd/46651fb0-ab4a-4288-b941-6738bd0ca8e8-master.m3u8https://video.igem.org/videos/embed/ah9LTpGQ4jwmkoSD9x8uv418000122022-10-27T23:05:04.159ZYES2022 Judging SessionsNOhttps://video.igem.org/w/78ZinjHVbCM48UoNgckFgrhttps://video.igem.org/lazy-static/thumbnails/a2444fb1-09cc-45d4-b060-429d84fa510a.jpgSUSTech_Shenzhen: Judging Session (2022)[Wiki](https://2022.igem.wiki/sustech-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/31b459b2-e0c3-420e-b364-1a99cee0ed83/aa7cc972-a1de-40d4-8b29-85aea0975036-master.m3u8https://video.igem.org/videos/embed/78ZinjHVbCM48UoNgckFgr18000112022-10-27T23:23:38.598ZYES2022 Judging SessionsNOhttps://video.igem.org/w/8i9AfMJPognuzgxG3aCWA3https://video.igem.org/lazy-static/thumbnails/e45ee259-2714-4692-960e-e85e5b5fdaab.jpgPUMC_CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/pumc-china)https://static.igem.org/peertube/streaming-playlists/hls/3b14e8aa-dc98-4fbf-9cca-cbf429f5ec3e/5b09eee0-cb9a-4cc8-ba66-7a3a2019f788-master.m3u8https://video.igem.org/videos/embed/8i9AfMJPognuzgxG3aCWA318000182022-10-27T23:33:29.179ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4xrbXqFTJCPquUb2BtMo8Chttps://video.igem.org/lazy-static/thumbnails/3e2e6b19-8531-4280-a91c-95a688a6ed19.jpgAlma: Judging Session (2022)[Wiki](https://2022.igem.wiki/alma)https://static.igem.org/peertube/streaming-playlists/hls/1caefefd-7480-4965-99c8-5589ab8504aa/229a8230-b00b-4889-ab36-4ab433db5a57-master.m3u8https://video.igem.org/videos/embed/4xrbXqFTJCPquUb2BtMo8C18000122022-10-28T00:15:56.793ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hpKBwSPebJZStb42H7u9AWhttps://video.igem.org/lazy-static/thumbnails/a959f299-c6cb-4e98-94d5-45e91370f9de.jpgGuelph: Judging Session (2022)[Wiki](https://2022.igem.wiki/guelph)https://static.igem.org/peertube/streaming-playlists/hls/84e333d7-6e72-4406-b8ab-4a7c2882502a/46dfba3b-4596-4d0e-9a2d-f19743353d4c-master.m3u8https://video.igem.org/videos/embed/hpKBwSPebJZStb42H7u9AW18000262022-10-28T00:25:48.082ZYES2022 Judging SessionsNOhttps://video.igem.org/w/24YR2PRcKVHdZTe65XCMN7https://video.igem.org/lazy-static/thumbnails/e7fa01e5-e702-40a3-855f-87505934c523.jpgJLU_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/08a766f4-e06f-4ce8-9e49-1ac71065b916/dac8453f-f03f-4c8b-b32c-e7aeb5b88430-master.m3u8https://video.igem.org/videos/embed/24YR2PRcKVHdZTe65XCMN718000482022-10-28T00:35:37.995ZYES2022 Judging SessionsNOhttps://video.igem.org/w/338RamTUns3XJvddUYrXhGhttps://video.igem.org/lazy-static/thumbnails/0f48db31-9e79-48bb-9647-38615e828f0f.jpgOhioState: Judging Session (2022)[Wiki](https://2022.igem.wiki/ohiostate)https://static.igem.org/peertube/streaming-playlists/hls/107e99e3-1983-483c-837b-85def816da6c/d6c5f2e7-4d6b-47bb-97e8-922175d8d10b-master.m3u8https://video.igem.org/videos/embed/338RamTUns3XJvddUYrXhG1800082022-10-28T00:45:40.232ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fg3xjkyQ5HDZpCfywjuaFUhttps://video.igem.org/lazy-static/thumbnails/4d187c39-1f29-4685-8953-b81f914797ce.jpgNJMU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/njmu-china)https://static.igem.org/peertube/streaming-playlists/hls/7379a9bf-96ea-49d4-b390-716f0793608e/fb860616-2643-4ef8-a7ba-bdd17dce676a-master.m3u8https://video.igem.org/videos/embed/fg3xjkyQ5HDZpCfywjuaFU18000432022-10-28T00:55:35.742ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jxpDGi55mN4x9VWTWGZ9Rmhttps://video.igem.org/lazy-static/thumbnails/771a7e4b-22ac-4f0c-b632-f3e42207ff95.jpgCSMU_Taiwan: Judging Session (2022)[Wiki](https://2022.igem.wiki/csmu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/962720a5-6c43-461a-a3f6-e39b4806f036/2743240b-3ad5-45ce-b781-143824ba76fb-master.m3u8https://video.igem.org/videos/embed/jxpDGi55mN4x9VWTWGZ9Rm18000102022-10-28T01:05:29.133ZYES2022 Judging SessionsNOhttps://video.igem.org/w/eNYAcV2TUfmj5Zsaw6UnyWhttps://video.igem.org/lazy-static/thumbnails/63e1f5e7-d356-4d6c-885d-81baa4c6968a.jpgHopkins: Judging Session (2022)[Wiki](https://2022.igem.wiki/hopkins)https://static.igem.org/peertube/streaming-playlists/hls/6fd5e403-0d1e-454d-9e97-02e5515847da/2d4bb4a7-49f6-49e5-87ed-06a81005096e-master.m3u8https://video.igem.org/videos/embed/eNYAcV2TUfmj5Zsaw6UnyW18000332022-10-28T01:15:24.633ZYES2022 Judging SessionsNOhttps://video.igem.org/w/mAiSoWpjYfGtzF6oFg4FC7https://video.igem.org/lazy-static/thumbnails/3f00222b-64b7-4c12-a976-0488b609932e.jpgREC-CHENNAI: Judging Session (2022)[Wiki](https://2022.igem.wiki/rec-chennai)https://static.igem.org/peertube/streaming-playlists/hls/a6c112cf-211f-4732-88a4-e1f54ffd9172/9f0089d3-714d-42d4-b3f1-209e63587060-master.m3u8https://video.igem.org/videos/embed/mAiSoWpjYfGtzF6oFg4FC718000802022-10-28T01:25:34.138ZYES2022 Judging SessionsNOhttps://video.igem.org/w/9o3CrqUuKPhLw8Xe3Jy1Svhttps://video.igem.org/lazy-static/thumbnails/94e91586-1e35-45f6-aebc-1a6f7aa8897a.jpgNYCU-Taipei: Judging Session (2022)[Wiki](https://2022.igem.wiki/nycu-taipei)https://static.igem.org/peertube/streaming-playlists/hls/43dd1789-1bd0-4a3b-ac3d-2bca331ae611/03452a50-8382-40a1-8a15-74d3252677d8-master.m3u8https://video.igem.org/videos/embed/9o3CrqUuKPhLw8Xe3Jy1Sv18000482022-10-28T01:35:44.872ZYES2022 Judging SessionsNOhttps://video.igem.org/w/vthDjHTNpQ3qKxnG2M4goWhttps://video.igem.org/lazy-static/thumbnails/e6e6ac97-5829-4b16-8cef-735cf0164c4b.jpgSHSID: Judging Session (2022)[Wiki](https://2022.igem.wiki/shsid)https://static.igem.org/peertube/streaming-playlists/hls/eea85c1f-0dda-4984-907b-38661cc35db6/cd90cd97-1525-4045-8134-bd4781125627-master.m3u8https://video.igem.org/videos/embed/vthDjHTNpQ3qKxnG2M4goW18000182022-10-28T01:45:47.046ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3YJkVYsNrii3sHVaCbLSSBhttps://video.igem.org/lazy-static/thumbnails/de15174a-c3df-4152-ac96-0a0f8764a7d5.jpgYkPaO: Judging Session (2022)[Wiki](https://2022.igem.wiki/ykpao)https://static.igem.org/peertube/streaming-playlists/hls/181e060c-95c0-49a3-899e-f62e27dada3f/63a9cd93-a73e-41d3-9088-2ae72bcf3cfd-master.m3u8https://video.igem.org/videos/embed/3YJkVYsNrii3sHVaCbLSSB18000182022-10-28T01:55:50.986ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2pqjjRV9wJDBvUgMgzTUSThttps://video.igem.org/lazy-static/thumbnails/a8c95ffd-eafe-4d86-b131-4253b29ff01e.jpgWorldshaper-Nanjing: Judging Session (2022)[Wiki](https://2022.igem.wiki/worldshaper-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/0b5e3b09-17b4-4ed6-bb50-0bb60dd750ff/89268eef-124d-4439-baf0-90118a8998ca-master.m3u8https://video.igem.org/videos/embed/2pqjjRV9wJDBvUgMgzTUST18000182022-10-28T02:05:53.320ZYES2022 Judging SessionsNOhttps://video.igem.org/w/xfGrAWFJctCjuCsfYCdNmKhttps://video.igem.org/lazy-static/thumbnails/17a59745-7d40-47d1-b61b-fa6660b54ed5.jpgTec-Monterrey: Judging Session (2022)[Wiki](https://2022.igem.wiki/tec-monterrey)https://static.igem.org/peertube/streaming-playlists/hls/fd18a257-be50-4c9a-866a-b2c12d9f48cb/a270e1a1-1b04-4c6e-9c68-1ebacbb1de87-master.m3u8https://video.igem.org/videos/embed/xfGrAWFJctCjuCsfYCdNmK1800052022-10-28T02:16:10.085ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hbtTUn4KpuJLjCc4wSuJ83https://video.igem.org/lazy-static/thumbnails/1eadfdb4-269f-46e2-b0d7-b3db9b45959e.jpgiBowu-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/ibowu-china)https://static.igem.org/peertube/streaming-playlists/hls/8308d8da-c2b1-476e-b6f1-f6ba67cdba00/50578aef-c448-418e-9e00-a3cbdd9cd534-master.m3u8https://video.igem.org/videos/embed/hbtTUn4KpuJLjCc4wSuJ8318000142022-10-27T01:48:11.596ZYES2022 Judging SessionsNOhttps://video.igem.org/w/dnaQHVk9msRxedCN3M1MnShttps://video.igem.org/lazy-static/thumbnails/9bf88e12-def3-4e89-8e32-3f21b2fd2727.jpgLZU-HS-China-A: Judging Session (2022)[Wiki](https://2022.igem.wiki/lzu-hs-china-a)https://static.igem.org/peertube/streaming-playlists/hls/642258e4-5cf9-4f56-acaf-d7ddc8f7e6d8/a1099d42-2d64-4aa1-a100-79b1becc93da-master.m3u8https://video.igem.org/videos/embed/dnaQHVk9msRxedCN3M1MnS18000192022-10-27T02:05:43.514ZYES2022 Judging SessionsNOhttps://video.igem.org/w/skGgxng2m1XTU8SqddgmRPhttps://video.igem.org/lazy-static/thumbnails/fbbeeaf6-3acf-4e34-acd9-26fb8a851a91.jpgMcGill: Judging Session (2022)[Wiki](https://2022.igem.wiki/mcgill)https://static.igem.org/peertube/streaming-playlists/hls/d54d8d83-ceab-4d69-98a0-8e82f94af0b1/98701bbf-a201-4f27-b3a5-01754929e5bb-master.m3u8https://video.igem.org/videos/embed/skGgxng2m1XTU8SqddgmRP180001272022-10-27T02:25:10.255ZYES2022 Judging SessionsNOhttps://video.igem.org/w/e6VUL8AyRkiSniM8XnUUphhttps://video.igem.org/lazy-static/thumbnails/ea672e29-1204-419b-a504-4301f33fcecf.jpgBio-Brussels: Judging Session (2022)[Wiki](https://2022.igem.wiki/bio-brussels)https://static.igem.org/peertube/streaming-playlists/hls/6a1abe93-ec5f-4071-8fdf-9f9c48756fa6/d946c43d-fff9-4974-8cc5-3d75ba49f176-master.m3u8https://video.igem.org/videos/embed/e6VUL8AyRkiSniM8XnUUph18000212022-10-27T02:42:17.747ZYES2022 Judging SessionsNOhttps://video.igem.org/w/dtY3g5NqMcYEu133TdZE8shttps://video.igem.org/lazy-static/thumbnails/0343f7b4-df10-48ed-b822-64e4c53717d1.jpgELTE: Judging Session (2022)[Wiki](https://2022.igem.wiki/elte)https://static.igem.org/peertube/streaming-playlists/hls/651547ec-55b3-4afe-bda1-9d6996eb5510/3244908e-e2f7-4ca3-b710-3c433835a453-master.m3u8https://video.igem.org/videos/embed/dtY3g5NqMcYEu133TdZE8s18000232022-10-27T03:00:41.291ZYES2022 Judging SessionsNOhttps://video.igem.org/w/mPvVKBLXdQE9SdbEA8m2mXhttps://video.igem.org/lazy-static/thumbnails/a028b28e-9124-48ae-b625-67b4dd5c08ec.jpgRUM-UPRM: Judging Session (2022)[Wiki](https://2022.igem.wiki/rum-uprm)https://static.igem.org/peertube/streaming-playlists/hls/a8992c64-9caa-4cd9-8977-27c6aed77e33/d917a536-b5a6-4994-8125-6f7ce687ccdb-master.m3u8https://video.igem.org/videos/embed/mPvVKBLXdQE9SdbEA8m2mX18000302022-10-27T03:19:26.112ZYES2022 Judging SessionsNOhttps://video.igem.org/w/21xAwhz7x7iMmPDpJQRU8ghttps://video.igem.org/lazy-static/thumbnails/3f066b8b-3665-4ef9-8429-548483513373.jpgSCUT-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/scut-china)https://static.igem.org/peertube/streaming-playlists/hls/082c9c22-6568-455f-b11b-dcacaa55351d/e4d2e943-81d2-4c8f-a333-e501dbf27c79-master.m3u8https://video.igem.org/videos/embed/21xAwhz7x7iMmPDpJQRU8g1800092022-10-27T03:36:35.607ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fPQsnC36eXYBQix5KzKYNehttps://video.igem.org/lazy-static/thumbnails/249e1f5f-fbcf-49d1-870f-b04fb90d3af8.jpgNanjing_HS: Judging Session (2022)[Wiki](https://2022.igem.wiki/nanjing-hs)https://static.igem.org/peertube/streaming-playlists/hls/780dc27b-ce5e-4c43-98f4-09d00b580b81/573c2409-6918-4ed2-8d00-0bb22d46afa8-master.m3u8https://video.igem.org/videos/embed/fPQsnC36eXYBQix5KzKYNe18000182022-10-27T03:55:24.123ZYES2022 Judging SessionsNOhttps://video.igem.org/w/wx21hFbSTaAi5gmwUnmmqwhttps://video.igem.org/lazy-static/thumbnails/5df10aca-f3af-458e-b274-eb6dc6fff44c.jpgSUNY_Oneonta: Judging Session (2022)[Wiki](https://2022.igem.wiki/suny-oneonta)https://static.igem.org/peertube/streaming-playlists/hls/f746d603-dd8d-4bf0-8bb6-06022384f6ce/80554a04-8e23-4e46-8534-521f641cc12b-master.m3u8https://video.igem.org/videos/embed/wx21hFbSTaAi5gmwUnmmqw1800052022-10-27T04:12:32.550ZYES2022 Judging SessionsNOhttps://video.igem.org/w/taNUQ7EENszz8iyhYPK8Lxhttps://video.igem.org/lazy-static/thumbnails/7dedb32e-fb91-4624-a6ea-2153b8257873.jpgUAM: Judging Session (2022)[Wiki](https://2022.igem.wiki/uam)https://static.igem.org/peertube/streaming-playlists/hls/dc0558fb-ba2c-4fe8-b744-52618e68d2bb/2f319d82-2197-46bc-b577-de269f49ae6d-master.m3u8https://video.igem.org/videos/embed/taNUQ7EENszz8iyhYPK8Lx18000162022-10-27T04:35:51.109ZYES2022 Judging SessionsNOhttps://video.igem.org/w/tFffyuuKsaZ1yhPWfN6BwVhttps://video.igem.org/lazy-static/thumbnails/53be6ddb-6707-4940-8f2e-13aab418c0d1.jpgTecCEM: Judging Session (2022)[Wiki](https://2022.igem.wiki/teccem)https://static.igem.org/peertube/streaming-playlists/hls/e021888a-8808-48c0-a493-ff31c579e455/ee784f7c-fc74-4d36-ac13-3907f93308d1-master.m3u8https://video.igem.org/videos/embed/tFffyuuKsaZ1yhPWfN6BwV18000102022-10-27T04:55:47.127ZYES2022 Judging SessionsNOhttps://video.igem.org/w/tRJbTnWk8bhTXjmojE7oGThttps://video.igem.org/lazy-static/thumbnails/37364792-ead9-4557-9a55-6309d273e72e.jpgWashington: Judging Session (2022)[Wiki](https://2022.igem.wiki/washington)https://static.igem.org/peertube/streaming-playlists/hls/e1983008-e004-4250-a984-cd6ba0838c6b/4d8fbce4-15a0-411e-a58a-fd04f82feec5-master.m3u8https://video.igem.org/videos/embed/tRJbTnWk8bhTXjmojE7oGT18000132022-10-27T05:14:49.243ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2TamRfkmJoupkXvEeQxXZKhttps://video.igem.org/lazy-static/thumbnails/c94eff4b-35d7-4c36-80d7-68374b89eb25.jpgTecMonterrey_GDL: Judging Session (2022)[Wiki](https://2022.igem.wiki/tecmonterrey-gdl)https://static.igem.org/peertube/streaming-playlists/hls/0f3dd6c2-934e-415f-8f95-36505ddc35c9/6cd33e1e-72fc-4eeb-b99a-5eb854a67962-master.m3u8https://video.igem.org/videos/embed/2TamRfkmJoupkXvEeQxXZK18000122022-10-27T05:53:57.189ZYES2022 Judging SessionsNOhttps://video.igem.org/w/mKtDcQV5spd5H6HDuFipz9https://video.igem.org/lazy-static/thumbnails/f6131f2b-e648-4048-9e97-d2f2e3cf6c8a.jpgRBHS_SanDiego_CA: Judging Session (2022)[Wiki](https://2022.igem.wiki/rbhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/a808ca3a-cb04-4c53-aeff-5031bbe03216/cac53bf7-0209-46fe-b0a4-4e306e5f5e45-master.m3u8https://video.igem.org/videos/embed/mKtDcQV5spd5H6HDuFipz91800052022-10-27T07:50:51.587ZYES2022 Judging SessionsNOhttps://video.igem.org/w/mdQGQfan113tdurmTUHqARhttps://video.igem.org/lazy-static/thumbnails/617be8b4-976e-418c-bfd3-a53575908b7f.jpgCAU_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/cau-china)https://static.igem.org/peertube/streaming-playlists/hls/a3c1b69d-b76d-4fb2-b1a0-731560357d4d/a1abc717-4703-4e33-b7d2-04546ea4014c-master.m3u8https://video.igem.org/videos/embed/mdQGQfan113tdurmTUHqAR180002072022-10-27T08:10:28.875ZYES2022 Judging SessionsNOhttps://video.igem.org/w/q8GHVjJhzc2K4pb3JXu9DXhttps://video.igem.org/lazy-static/thumbnails/01a83899-ec8a-4464-8cd8-4ef8606b0633.jpgLethbridge_HS: Judging Session (2022)[Wiki](https://2022.igem.wiki/lethbridge-hs)https://static.igem.org/peertube/streaming-playlists/hls/c36ea169-6834-4a0b-aac1-f22dd818a749/7c80b8b5-cf52-40d0-9ac8-686dedc7926c-master.m3u8https://video.igem.org/videos/embed/q8GHVjJhzc2K4pb3JXu9DX1800042022-10-27T08:30:35.055ZYES2022 Judging SessionsNOhttps://video.igem.org/w/aUQFS75P3xRz24ibd3c5b3https://video.igem.org/lazy-static/thumbnails/0f107a94-df07-4422-b08c-2d6c58e07a94.jpgSZU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/szu-china)https://static.igem.org/peertube/streaming-playlists/hls/5042edb8-b549-4bf9-871c-0eb342a0be2e/1c32f7e3-c177-4bde-a04c-88804259c0db-master.m3u8https://video.igem.org/videos/embed/aUQFS75P3xRz24ibd3c5b318000502022-10-29T21:00:37.072ZYES2022 Judging SessionsNOhttps://video.igem.org/w/8JUTP9vtzo7NaYB3cjZVLrhttps://video.igem.org/lazy-static/thumbnails/e88925aa-2871-4fc4-8452-d71c9efc3051.jpgWrightState: Judging Session (2022)[Wiki](https://2022.igem.wiki/wrightstate)https://static.igem.org/peertube/streaming-playlists/hls/3eadce3d-c296-4096-b0a6-73d66aedb46d/e5078436-7fa3-4081-ab95-56d89f7dbc6b-master.m3u8https://video.igem.org/videos/embed/8JUTP9vtzo7NaYB3cjZVLr18000152022-10-29T21:10:26.013ZYES2022 Judging SessionsNOhttps://video.igem.org/w/s6G4fQLQgcgaUAxbGfupynhttps://video.igem.org/lazy-static/thumbnails/b516b5f7-f9b7-46ee-be45-b65c25d0a8ab.jpgUBC_Vancouver: Judging Session (2022)[Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/d359026d-5097-4605-b1f3-1e8cd3d6e3d1/58d99356-a509-45d1-9b54-ba4f4ce600fb-master.m3u8https://video.igem.org/videos/embed/s6G4fQLQgcgaUAxbGfupyn18000192022-10-29T21:20:12.387ZYES2022 Judging SessionsNOhttps://video.igem.org/w/bcYhJ9zpgkJNc7mycMJbDBhttps://video.igem.org/lazy-static/thumbnails/a0a1b2f7-497b-480c-bf5c-0e56de720688.jpgUIUC_Illinois: Judging Session (2022)[Wiki](https://2022.igem.wiki/uiuc-illinois)https://static.igem.org/peertube/streaming-playlists/hls/52a741cc-4a2a-4342-9094-d3f9007f462d/6fc0b334-cdc4-41fd-9b27-b48f81bea302-master.m3u8https://video.igem.org/videos/embed/bcYhJ9zpgkJNc7mycMJbDB1800092022-10-29T21:29:52.833ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fnz72Vc1bGiqZabq8VRPkghttps://video.igem.org/lazy-static/thumbnails/5280f895-0045-4c91-bd1d-04f9491d8ae0.jpgWVHS_SanDiego: Judging Session (2022)[Wiki](https://2022.igem.wiki/wvhs-sandiego)https://static.igem.org/peertube/streaming-playlists/hls/7462f623-f08b-40f6-b470-f04e73a9f551/b75d9e9a-129c-4038-86d6-599b0d0fee93-master.m3u8https://video.igem.org/videos/embed/fnz72Vc1bGiqZabq8VRPkg18000182022-10-29T21:38:47.453ZYES2022 Judging SessionsNOhttps://video.igem.org/w/i2GGFYcE5CzdtUxYCXVeowhttps://video.igem.org/lazy-static/thumbnails/838fd891-22ff-4148-85b0-ba27bdc7e5c5.jpgITESO_Guadalajara: Judging Session (2022)[Wiki](https://2022.igem.wiki/iteso-guadalajara)https://static.igem.org/peertube/streaming-playlists/hls/89e82f27-ec93-42d1-aa6b-3211c57960a6/7c90e162-2ac8-4847-89de-bb1be0cccd53-master.m3u8https://video.igem.org/videos/embed/i2GGFYcE5CzdtUxYCXVeow18000192022-10-29T21:48:32.644ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5utRPCWbbsmAtrrFU6k2RQhttps://video.igem.org/lazy-static/thumbnails/05048b42-6df8-4809-bb81-f424c43d4260.jpgMcMaster_Canada: Judging Session (2022)[Wiki](https://2022.igem.wiki/mcmaster-canada)https://static.igem.org/peertube/streaming-playlists/hls/245e8c85-7764-45bb-825a-07f013084876/ff24a8f7-10c7-4e08-947f-db26fe1b7f5a-master.m3u8https://video.igem.org/videos/embed/5utRPCWbbsmAtrrFU6k2RQ18000242022-10-29T21:57:26.917ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6Fmo8MDqJ4qNqG42rAuWyKhttps://video.igem.org/lazy-static/thumbnails/7809411b-3749-4e8e-98f3-d1903397b356.jpgUCSC: Judging Session (2022)[Wiki](https://2022.igem.wiki/ucsc)https://static.igem.org/peertube/streaming-playlists/hls/2dfc42cd-cc2d-49b7-889a-e5e45bc047e3/ee681b63-713c-4a0f-8b43-59da46aa1e21-master.m3u8https://video.igem.org/videos/embed/6Fmo8MDqJ4qNqG42rAuWyK180001002022-10-29T22:06:30.438ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ohgMgi5LuMp7WHrs3nWJ6Nhttps://video.igem.org/lazy-static/thumbnails/570f304a-6f26-4eba-9516-da712ce5c121.jpgUFMG_UFV_Brazil: Judging Session (2022)[Wiki](https://2022.igem.wiki/ufmg-ufv-brazil)https://static.igem.org/peertube/streaming-playlists/hls/b46ead05-4c57-492d-ab05-7d4816db5938/37ead34d-3f1e-4bab-bfe1-9aa56e1306a1-master.m3u8https://video.igem.org/videos/embed/ohgMgi5LuMp7WHrs3nWJ6N18000312022-10-29T22:16:21.737ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pAi8JFcJftX8VM99z8oVqJhttps://video.igem.org/lazy-static/thumbnails/4ff096c8-2dde-43b3-ada9-0c27db8df83d.jpgUCL: Judging Session (2022)[Wiki](https://2022.igem.wiki/ucl)https://static.igem.org/peertube/streaming-playlists/hls/bf0c0942-f0ef-4749-b4c0-3032d6327b8e/6abb47a0-0d28-48bb-888f-37ff6a403a18-master.m3u8https://video.igem.org/videos/embed/pAi8JFcJftX8VM99z8oVqJ18000222022-10-29T22:25:55.599ZYES2022 Judging SessionsNOhttps://video.igem.org/w/irH31CfKaKk89qDvSxMmw5https://video.igem.org/lazy-static/thumbnails/8ced303d-47c1-457f-8016-8da83e82be1b.jpgDNHS_SanDiego_CA: Judging Session (2022)[Wiki](https://2022.igem.wiki/dnhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/8d423d6f-83e2-4afd-af82-9b71bb5dda98/c743ba67-3e08-42c8-80e8-8804f81b7324-master.m3u8https://video.igem.org/videos/embed/irH31CfKaKk89qDvSxMmw51800072022-10-29T22:35:40.695ZYES2022 Judging SessionsNOhttps://video.igem.org/w/r4du5tca7r9ZP7J2Tcey2thttps://video.igem.org/lazy-static/thumbnails/1e0365ee-52f0-48c6-8792-d89e7c73951c.jpgWWU_Muenster: Judging Session (2022)[Wiki](https://2022.igem.wiki/wwu-muenster)https://static.igem.org/peertube/streaming-playlists/hls/cae76432-e768-4a14-bc9e-ec5f84b196ad/d809958b-4d31-40cf-b3fb-0d17fbb3dcde-master.m3u8https://video.igem.org/videos/embed/r4du5tca7r9ZP7J2Tcey2t18000472022-10-29T22:45:28.631ZYES2022 Judging SessionsNOhttps://video.igem.org/w/7J1eYRKWPomLV4DfyzKZUzhttps://video.igem.org/lazy-static/thumbnails/1f300b9e-6461-40d3-9038-7ea5f5e6778d.jpgToronto: Judging Session (2022)[Wiki](https://2022.igem.wiki/toronto)https://static.igem.org/peertube/streaming-playlists/hls/36743806-4a53-44e4-a832-ce17648cf1b5/ee1c1d4f-46d2-46a6-83c9-a3b6d05568ac-master.m3u8https://video.igem.org/videos/embed/7J1eYRKWPomLV4DfyzKZUz18000252022-10-29T22:55:25.140ZYES2022 Judging SessionsNOhttps://video.igem.org/w/cHu7KeJoYPWyhr3D4nuoXAhttps://video.igem.org/lazy-static/thumbnails/c4972367-6b7f-4f75-affa-aa13fa8b35bc.jpgDuke: Judging Session (2022)[Wiki](https://2022.igem.wiki/duke)https://static.igem.org/peertube/streaming-playlists/hls/5edf58dc-98e7-4fd3-9b35-0f219775f280/394c051c-17a0-4f2e-a87b-e58e1fa5c050-master.m3u8https://video.igem.org/videos/embed/cHu7KeJoYPWyhr3D4nuoXA18000182022-10-29T23:05:07.747ZYES2022 Judging SessionsNOhttps://video.igem.org/w/7JoDLQ9HvHSeaAQhrR6P8Lhttps://video.igem.org/lazy-static/thumbnails/62123feb-7f93-40ab-85f5-f654ea83dee5.jpgGA_State_SW_Jiaotong: Judging Session (2022)[Wiki](https://2022.igem.wiki/ga-state-sw-jiaotong)https://static.igem.org/peertube/streaming-playlists/hls/36820796-0ce3-46ae-ad1a-ecfef7f8c6d6/7e1603fe-2c55-424a-9067-5b1a8eb479ec-master.m3u8https://video.igem.org/videos/embed/7JoDLQ9HvHSeaAQhrR6P8L18000152022-10-29T23:14:32.074ZYES2022 Judging SessionsNOhttps://video.igem.org/w/qDMRZKeprbizqMymTXEsCrhttps://video.igem.org/lazy-static/thumbnails/3031f2e0-cded-4b18-ba5e-51be2fa27ffb.jpgTAU_Israel: Judging Session (2022)[Wiki](https://2022.igem.wiki/tau-israel)https://static.igem.org/peertube/streaming-playlists/hls/c7a21c5c-8e94-440f-9ea0-bf71fb8fb329/1b079527-33f8-4fee-85a7-135c45fa163a-master.m3u8https://video.igem.org/videos/embed/qDMRZKeprbizqMymTXEsCr18000312022-10-29T23:23:49.799ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ogUEwMQkeC3N7U15jw1Mcehttps://video.igem.org/lazy-static/thumbnails/32341ff9-07b1-454f-b128-fc2f334e0542.jpgUBC-Okanagan: Judging Session (2022)[Wiki](https://2022.igem.wiki/ubc-okanagan)https://static.igem.org/peertube/streaming-playlists/hls/b461a9a1-07c6-42ef-b9c1-15f844a56fff/e38de309-2d28-4290-a974-d6c347076064-master.m3u8https://video.igem.org/videos/embed/ogUEwMQkeC3N7U15jw1Mce18000452022-10-29T23:32:46.953ZYES2022 Judging SessionsNOhttps://video.igem.org/w/dka7NTiBEbgBgZGH4VHmBShttps://video.igem.org/lazy-static/thumbnails/6d012240-7e71-49ed-9007-d5b62da8e683.jpgCosta_Rica: Judging Session (2022)[Wiki](https://2022.igem.wiki/costa-rica)https://static.igem.org/peertube/streaming-playlists/hls/63da6a12-12a8-455c-8cbf-8b391df3bbc8/6d7017c1-253a-434e-9677-fc4cf897ec64-master.m3u8https://video.igem.org/videos/embed/dka7NTiBEbgBgZGH4VHmBS18000242022-10-29T23:41:32.423ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4auujZw3GbYDYx8nNkp7iGhttps://video.igem.org/lazy-static/thumbnails/4afb8c05-791a-438f-84ef-d93fac98336c.jpgCCA_San_Diego: Judging Session (2022)[Wiki](https://2022.igem.wiki/cca-san-diego)https://static.igem.org/peertube/streaming-playlists/hls/199eaaa0-95f7-4348-bb1d-475d6962d722/7616acff-a511-4ab8-aeda-a9945e5b1113-master.m3u8https://video.igem.org/videos/embed/4auujZw3GbYDYx8nNkp7iG18000602022-10-29T23:50:59.428ZYES2022 Judging SessionsNOhttps://video.igem.org/w/33KJNEkJjtXJjJCLShxsJQhttps://video.igem.org/lazy-static/thumbnails/f7873630-ecc9-4c6f-ae7b-1caf688d8543.jpgMissouri_Miners: Judging Session (2022)[Wiki](https://2022.igem.wiki/missouri-miners)https://static.igem.org/peertube/streaming-playlists/hls/1094b828-5686-4c8d-b007-d588e728ef74/32aad0fc-9d63-48c0-af5f-bbff1169d726-master.m3u8https://video.igem.org/videos/embed/33KJNEkJjtXJjJCLShxsJQ18000312022-10-30T00:00:46.834ZYES2022 Judging SessionsNOhttps://video.igem.org/w/cvnY2dD1AFj28i77qM39MThttps://video.igem.org/lazy-static/thumbnails/56a4a9ee-d84b-41a3-9f68-0655e4483afb.jpgAustin_UTexas: Judging Session (2022)[Wiki](https://2022.igem.wiki/austin-utexas)https://static.igem.org/peertube/streaming-playlists/hls/5d2ea1ac-dd6b-49c6-a162-c02587f46a25/e2051359-cb49-48ad-b8f1-f589a7222c4d-master.m3u8https://video.igem.org/videos/embed/cvnY2dD1AFj28i77qM39MT180001622022-10-30T00:10:35.167ZYES2022 Judging SessionsNOhttps://video.igem.org/w/e6YhgVt9xzEwWqghg4tDxAhttps://video.igem.org/lazy-static/thumbnails/9024138c-0f1a-47b1-a626-d75645a9a43a.jpgUSAFA: Judging Session (2022)[Wiki](https://2022.igem.wiki/usafa)https://static.igem.org/peertube/streaming-playlists/hls/6a1c34a0-d21e-419b-8bf3-038d8bc6c8a4/cbc7ebcd-c1c9-42f0-8ce3-8cfea7fb0054-master.m3u8https://video.igem.org/videos/embed/e6YhgVt9xzEwWqghg4tDxA18000882022-10-30T00:20:24.266ZYES2022 Judging SessionsNOhttps://video.igem.org/w/sSg6g53pQLJZMXbnhucpAbhttps://video.igem.org/lazy-static/thumbnails/1d0488b3-ed90-47be-add4-dd8718c5553f.jpgManchester: Judging Session (2022)[Wiki](https://2022.igem.wiki/manchester)https://static.igem.org/peertube/streaming-playlists/hls/d99217f7-db80-43a5-9db3-23e60d31a6b2/a1784c4f-9da9-4d8b-b926-5561b7b1fb0e-master.m3u8https://video.igem.org/videos/embed/sSg6g53pQLJZMXbnhucpAb18000352022-10-28T04:00:23.163ZYES2022 Judging SessionsNOhttps://video.igem.org/w/vQnDMtmKZqDwYGygkzZdXEhttps://video.igem.org/lazy-static/thumbnails/1bf8ecea-362b-46be-adba-01ce3fff587e.jpgCCU_Taiwan: Judging Session (2022)[Wiki](https://2022.igem.wiki/ccu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/f19a10b6-1b12-4540-922e-45c03716ece4/e32512fc-6bd6-4115-b007-7820eb7e1726-master.m3u8https://video.igem.org/videos/embed/vQnDMtmKZqDwYGygkzZdXE1800082022-10-27T08:55:11.464ZYES2022 Judging SessionsNOhttps://video.igem.org/w/reSehTm6C6RAbhtw2ee76Zhttps://video.igem.org/lazy-static/thumbnails/a767ef34-68af-4432-9e6a-f5c0f9d17c11.jpgAnatolia_College_HS: Judging Session (2022)[Wiki](https://2022.igem.wiki/anatolia-college-hs)https://static.igem.org/peertube/streaming-playlists/hls/cc64171f-b8b8-42f9-8790-065da3b4ceab/75de1b39-de68-4280-bab2-2eee2f70f738-master.m3u8https://video.igem.org/videos/embed/reSehTm6C6RAbhtw2ee76Z1800072022-10-27T11:10:50.160ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2gBHSZHmdubKv4GNKFWzd8https://video.igem.org/lazy-static/thumbnails/857e52d7-ca56-448d-a911-47ce98290df0.jpgBJWZ-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bjwz-china)https://static.igem.org/peertube/streaming-playlists/hls/0a474f49-15d0-49c5-9e60-5fafce97eca3/34f921d4-36e0-47c9-bf0f-12d801e96c84-master.m3u8https://video.igem.org/videos/embed/2gBHSZHmdubKv4GNKFWzd818000162022-10-27T11:23:43.651ZYES2022 Judging SessionsNOhttps://video.igem.org/w/m8hXgidczSRLQa269ELUy2https://video.igem.org/lazy-static/thumbnails/bf3bc66d-411b-4c8f-a211-4ee5c5d0d7a3.jpgBonn-Rheinbach: Judging Session (2022)[Wiki](https://2022.igem.wiki/bonn-rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/a2fb6d58-edbe-4333-a19c-316ec5aa5991/813dc0ff-a20b-42c9-840e-85a37fc86af2-master.m3u8https://video.igem.org/videos/embed/m8hXgidczSRLQa269ELUy21800052022-10-27T11:35:36.556ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5GJhvv6WPE84iYVmyD5zV5https://video.igem.org/lazy-static/thumbnails/60212782-58bc-415a-bea3-b69b0d2b757f.jpgNJU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/nju-china)https://static.igem.org/peertube/streaming-playlists/hls/26145d40-d0c2-4a4a-a758-f64eb99dbd1a/e900df8d-47ce-4084-941a-a1face7b656c-master.m3u8https://video.igem.org/videos/embed/5GJhvv6WPE84iYVmyD5zV518000202022-10-27T11:46:55.995ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6MsnPdK8pbaP179J9Sn1nrhttps://video.igem.org/lazy-static/thumbnails/022a96d9-6fc0-4099-a8f9-8ec7b363077a.jpgCUHK-HongKong-SBS: Judging Session (2022)[Wiki](https://2022.igem.wiki/cuhk-hongkong-sbs)https://static.igem.org/peertube/streaming-playlists/hls/2ed66af5-1d41-40db-a0be-3b9b8c0a28c3/c1540384-8b42-4b8c-b4c7-552f4c0cac10-master.m3u8https://video.igem.org/videos/embed/6MsnPdK8pbaP179J9Sn1nr18000202022-10-27T12:00:44.583ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hetTXLSQoD4q6m7cvUyLhChttps://video.igem.org/lazy-static/thumbnails/2e8ca2a9-dabe-4178-90a8-98ad289f338a.jpgICT-Mumbai: Judging Session (2022)[Wiki](https://2022.igem.wiki/ict-mumbai)https://static.igem.org/peertube/streaming-playlists/hls/8374143a-d6e9-4fad-a127-bb5aefc14714/e52a3030-6ef3-4b9b-af13-eb7b1aed5732-master.m3u8https://video.igem.org/videos/embed/hetTXLSQoD4q6m7cvUyLhC180001472022-10-27T12:12:57.855ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jMZykgGkQ1PT5K9V91zVqLhttps://video.igem.org/lazy-static/thumbnails/b309f357-ba80-4dda-bfa8-799556e31237.jpgThessaloniki_Meta: Judging Session (2022)[Wiki](https://2022.igem.wiki/thessaloniki-meta)https://static.igem.org/peertube/streaming-playlists/hls/98306fc3-11f4-4789-aace-b57c9e58a078/79e45761-2595-4cea-8c39-c22420a16906-master.m3u8https://video.igem.org/videos/embed/jMZykgGkQ1PT5K9V91zVqL18000452022-10-27T12:25:18.942ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jZJeVbpdMxz4P2erS7XJQkhttps://video.igem.org/lazy-static/thumbnails/d8dc4eee-bd42-462d-8411-e4649f3b4f84.jpgTokyoTech: Judging Session (2022)[Wiki](https://2022.igem.wiki/tokyotech)https://static.igem.org/peertube/streaming-playlists/hls/99d3ec0c-3ab6-406a-bfd3-e93e64fd88d3/bbffdde0-9556-4d39-8042-724c9ab9fc68-master.m3u8https://video.igem.org/videos/embed/jZJeVbpdMxz4P2erS7XJQk18000232022-10-27T12:35:24.982ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pT6sAz5AG2aaVmKGTgyaDshttps://video.igem.org/lazy-static/thumbnails/65b58aed-ded8-464b-a972-232228025e04.jpgThinker-Shenzhen: Judging Session (2022)[Wiki](https://2022.igem.wiki/thinker-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/c1647c43-5171-4e33-8dbb-74107a5ac610/ca1b643a-dbe9-4b40-9257-553e369a5641-master.m3u8https://video.igem.org/videos/embed/pT6sAz5AG2aaVmKGTgyaDs18000192022-10-27T12:45:53.766ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jxzeq89iPF5uyK171pTSduhttps://video.igem.org/lazy-static/thumbnails/f73b0883-52bb-4ade-9e4f-451e0ddeac66.jpgUNILausanne: Judging Session (2022)[Wiki](https://2022.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/962d0842-f301-4675-9650-cc224052c6c4/2b352757-1e61-481e-9562-bbcaee198819-master.m3u8https://video.igem.org/videos/embed/jxzeq89iPF5uyK171pTSdu18000142022-10-27T13:15:16.683ZYES2022 Judging SessionsNOhttps://video.igem.org/w/m5Lpd11eFNEaC3u981JBQQhttps://video.igem.org/lazy-static/thumbnails/8d15e18b-e4ff-4cc6-9119-bb3aa1c607eb.jpgWego_Taipei: Judging Session (2022)[Wiki](https://2022.igem.wiki/wego-taipei)https://static.igem.org/peertube/streaming-playlists/hls/a2a11c5f-0bb0-4b54-adc4-affc7e65ceec/c3006145-c152-449e-95c0-9f1c2489cb86-master.m3u8https://video.igem.org/videos/embed/m5Lpd11eFNEaC3u981JBQQ18000412022-10-27T13:18:55.636ZYES2022 Judging SessionsNOhttps://video.igem.org/w/aYEx9DM1xicMD9vdfD51iVhttps://video.igem.org/lazy-static/thumbnails/e743d58e-5aef-4fe6-b590-ed4bd1a5f383.jpgZJU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/zju-china)https://static.igem.org/peertube/streaming-playlists/hls/50cba5fb-275a-4295-9815-d9b90770203f/db049636-f3b6-45cd-a6b1-53193cc24aa0-master.m3u8https://video.igem.org/videos/embed/aYEx9DM1xicMD9vdfD51iV18000412022-10-27T13:30:42.425ZYES2022 Judging SessionsNOhttps://video.igem.org/w/7E9Mo8rMSvGKor8t8ipUHehttps://video.igem.org/lazy-static/thumbnails/c1a09620-ac79-4210-98c9-27a963b9eab5.jpgXJTU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/xjtu-china)https://static.igem.org/peertube/streaming-playlists/hls/35ea81f1-7a7e-4a72-9ada-a2043143a6ef/1e895a78-d222-4b0f-a431-5b2eebe81f51-master.m3u8https://video.igem.org/videos/embed/7E9Mo8rMSvGKor8t8ipUHe18000102022-10-27T13:44:10.113ZYES2022 Judging SessionsNOhttps://video.igem.org/w/kF6ps17HmTCJcEv3D7MKsWhttps://video.igem.org/lazy-static/thumbnails/50954aed-8a7b-4bac-bd3e-5cf21723373b.jpgDKU: Judging Session (2022)[Wiki](https://2022.igem.wiki/dku)https://static.igem.org/peertube/streaming-playlists/hls/9f52f8da-000f-476f-9e21-60954bee3bae/aab7f62e-7db8-42d9-a3e3-b90a37d5edf6-master.m3u8https://video.igem.org/videos/embed/kF6ps17HmTCJcEv3D7MKsW18000112022-10-28T02:27:01.913ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rXttaKnmiftC35fqddbBdahttps://video.igem.org/lazy-static/thumbnails/bda69d5d-9c66-42a7-85ab-723ff36638e9.jpgEast_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/east-china)https://static.igem.org/peertube/streaming-playlists/hls/d2334d46-d1bb-4f9e-af60-b2f8438fdd7d/cf1b327b-de98-4f1a-a348-45eae7a454d5-master.m3u8https://video.igem.org/videos/embed/rXttaKnmiftC35fqddbBda1800092022-10-28T02:36:34.571ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6qSqPeUP7UXdR3tBJjh9YYhttps://video.igem.org/lazy-static/thumbnails/4295d927-da1a-4707-a7d0-76615296ad85.jpgFAFU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/fafu-china)https://static.igem.org/peertube/streaming-playlists/hls/2bf69efc-5872-4dab-a605-f99c007dea28/3fd03b72-68a0-44ee-bc2f-3bfe23348fee-master.m3u8https://video.igem.org/videos/embed/6qSqPeUP7UXdR3tBJjh9YY18000192022-10-28T02:46:35.940ZYES2022 Judging SessionsNOhttps://video.igem.org/w/sxDWsF7XHwSHF1wNX3aDUhhttps://video.igem.org/lazy-static/thumbnails/b403751d-f6c4-4310-ba18-c0ec6aee83ab.jpgAboa: Judging Session (2022)[Wiki](https://2022.igem.wiki/aboa)https://static.igem.org/peertube/streaming-playlists/hls/d6f90af1-7692-401e-b36b-e2be07cf6174/cb18c16a-869a-412f-8a9b-ab2ee378fabb-master.m3u8https://video.igem.org/videos/embed/sxDWsF7XHwSHF1wNX3aDUh18000152022-10-28T02:56:38.484ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jSMKfXgfHeRSeUMarRSYochttps://video.igem.org/lazy-static/thumbnails/aa3bd096-14a2-4f7b-a643-d500abbbcdaf.jpgAix-Marseille: Judging Session (2022)[Wiki](https://2022.igem.wiki/aix-marseille)https://static.igem.org/peertube/streaming-playlists/hls/98dbe051-a2ea-481c-aa02-d02bbd607427/e65159eb-7ee6-4b03-b3d9-831dd0e7c1b2-master.m3u8https://video.igem.org/videos/embed/jSMKfXgfHeRSeUMarRSYoc1800072022-10-28T03:06:16.225ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6p2PhKDKLd4zvTFTov6C9Zhttps://video.igem.org/lazy-static/thumbnails/a000ad60-ae10-44cc-a829-3c58f374fdd3.jpgGO_Paris-Saclay: Judging Session (2022)[Wiki](https://2022.igem.wiki/go-paris-saclay)https://static.igem.org/peertube/streaming-playlists/hls/2bb4eb32-c7bc-467c-bbff-c6ed52b08db1/b4211f1f-f7f8-4782-9d24-4827f95330fc-master.m3u8https://video.igem.org/videos/embed/6p2PhKDKLd4zvTFTov6C9Z18000142022-10-28T03:16:41.741ZYES2022 Judging SessionsNOhttps://video.igem.org/w/x2ipRHRbAWM5BEobenZ8pAhttps://video.igem.org/lazy-static/thumbnails/b3e949a8-d98f-48cc-88cd-362e0e55dc73.jpgIIT-Delhi: Judging Session (2022)[Wiki](https://2022.igem.wiki/iit-delhi)https://static.igem.org/peertube/streaming-playlists/hls/fb39c5b8-5c82-40ef-bf2b-ddc686dbf12c/353e54a0-a717-44b4-91d5-3427c4500252-master.m3u8https://video.igem.org/videos/embed/x2ipRHRbAWM5BEobenZ8pA18000382022-10-28T03:27:30.948ZYES2022 Judging SessionsNOhttps://video.igem.org/w/aBjcjg2cmfoFsE7oBo2Vbwhttps://video.igem.org/lazy-static/thumbnails/8407b812-7176-4f3e-a241-89693152f724.jpgNUDT_CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/nudt-china)https://static.igem.org/peertube/streaming-playlists/hls/4dd07e35-c86a-4b78-b190-2f425b9987be/f8750c24-71a5-47c2-8577-5a12d123730f-master.m3u8https://video.igem.org/videos/embed/aBjcjg2cmfoFsE7oBo2Vbw180001022022-10-28T03:37:56.176ZYES2022 Judging SessionsNOhttps://video.igem.org/w/cfM4YDcfLYyyCt9ESqiZNyhttps://video.igem.org/lazy-static/thumbnails/60ae06f7-f2a0-4f7c-be37-9d7e407eefef.jpgMingdao: Judging Session (2022)[Wiki](https://2022.igem.wiki/mingdao)https://static.igem.org/peertube/streaming-playlists/hls/5b24b668-3927-43b3-bffa-71cc3ea1eb78/6b81d3af-be6d-4faa-820f-f0979b7f6a43-master.m3u8https://video.igem.org/videos/embed/cfM4YDcfLYyyCt9ESqiZNy18000162022-10-28T03:49:36.602ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2eMogrdUyNub1Lgqt9qDmHhttps://video.igem.org/lazy-static/thumbnails/42925d22-cd48-4cef-be91-01a1c6133d01.jpgSMS_Shenzhen: Judging Session (2022)[Wiki](https://2022.igem.wiki/sms-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/0a05c6c8-215c-4340-9b5f-a1c99cd65685/bf87ce31-31cd-4bc8-9f82-1fe7c67dd096-master.m3u8https://video.igem.org/videos/embed/2eMogrdUyNub1Lgqt9qDmH1800062022-10-28T20:20:41.812ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pkfMsD6fWikoG22DpPK7Kbhttps://video.igem.org/lazy-static/thumbnails/760db011-2c3e-4cb9-9bbe-e58951a93936.jpgSZ-SHD: Judging Session (2022)[Wiki](https://2022.igem.wiki/sz-shd)https://static.igem.org/peertube/streaming-playlists/hls/bcf26e7f-dd0d-4afa-bbb3-7453dcc4b768/c0c110e5-1b36-4a85-99e5-3143af6cd661-master.m3u8https://video.igem.org/videos/embed/pkfMsD6fWikoG22DpPK7Kb18000142022-10-28T22:20:25.505ZYES2022 Judging SessionsNOhttps://video.igem.org/w/1qvhovkiNyhNmyDPCN5YHthttps://video.igem.org/lazy-static/thumbnails/f9f6c804-591a-49ed-855f-4108a9175b23.jpgSydney_Australia: Judging Session (2022)[Wiki](https://2022.igem.wiki/sydney-australia)https://static.igem.org/peertube/streaming-playlists/hls/036be580-a17f-4758-a133-35ba49223f85/012f98fe-9505-4864-a758-cf5c6d6b3323-master.m3u8https://video.igem.org/videos/embed/1qvhovkiNyhNmyDPCN5YHt18000152022-10-29T03:00:41.582ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4bjeJLJQkgnaF6VrUsxBVuhttps://video.igem.org/lazy-static/thumbnails/1e271923-3c62-4e7d-9e2a-75e4d58d49ed.jpgNYU_Abu_Dhabi: Judging Session (2022)[Wiki](https://2022.igem.wiki/nyu-abu-dhabi)https://static.igem.org/peertube/streaming-playlists/hls/19bc17b0-ac2d-4b3e-9be0-38b776443ac2/df4d129b-43d6-4f3b-a898-1ebe9f4f52dd-master.m3u8https://video.igem.org/videos/embed/4bjeJLJQkgnaF6VrUsxBVu18000112022-10-29T04:38:26.891ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hsPf3MrJiKYe2EsGTRTRDghttps://video.igem.org/lazy-static/thumbnails/c5a76dce-24ef-440e-a4b4-b63aa1e53afc.jpgTongji_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/tongji-china)https://static.igem.org/peertube/streaming-playlists/hls/8550abae-06a0-421e-a7c1-993b1e44403d/202ff675-de30-4ac5-9bb3-fee68feaa030-master.m3u8https://video.igem.org/videos/embed/hsPf3MrJiKYe2EsGTRTRDg18000182022-10-29T04:47:38.869ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rTdekHtvz6jr3s3c6JjrC6https://video.igem.org/lazy-static/thumbnails/674851ff-3570-44d9-a18c-12e836eff7e2.jpgBOKU-Vienna: Judging Session (2022)[Wiki](https://2022.igem.wiki/boku-vienna)https://static.igem.org/peertube/streaming-playlists/hls/d19aef8e-e46d-43fc-b95b-499639762401/44aae064-c291-452e-a5b3-02cb253a7633-master.m3u8https://video.igem.org/videos/embed/rTdekHtvz6jr3s3c6JjrC618000172022-10-29T04:56:27.112ZYES2022 Judging SessionsNOhttps://video.igem.org/w/497qn5PqdLwi7YXiZk9VBvhttps://video.igem.org/lazy-static/thumbnails/a4871c60-499d-4752-8f0f-58001af5ae5d.jpgAFCM-Egypt: Judging Session (2022)[Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/196d5298-b6f9-45d1-a8f8-a9e14c59ee4f/9d93bf83-e649-4817-844e-89aa85e54a30-master.m3u8https://video.igem.org/videos/embed/497qn5PqdLwi7YXiZk9VBv18000692022-10-29T05:06:03.788ZYES2022 Judging SessionsNOhttps://video.igem.org/w/oAgjmbqhLetpZSfYRa79E3https://video.igem.org/lazy-static/thumbnails/ea7e8725-7f32-4a3e-9ed1-43f4dc97db89.jpgTJUSLS_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/tjusls-china)https://static.igem.org/peertube/streaming-playlists/hls/b6f1c719-6eee-4099-a3a2-fc14e40438de/5e1225be-a98a-4a72-969c-33057942fa44-master.m3u8https://video.igem.org/videos/embed/oAgjmbqhLetpZSfYRa79E318000192022-10-29T05:32:59.439ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4TLrpdvSq3KhAHKQevgjYBhttps://video.igem.org/lazy-static/thumbnails/a638b853-a0d7-4ffd-afc0-54ac7f0c4ac6.jpgNYCU_Formosa: Judging Session (2022)[Wiki](https://2022.igem.wiki/nycu-formosa)https://static.igem.org/peertube/streaming-playlists/hls/1f85bbee-091f-4114-b97f-a6e8aff8da23/1a050047-011c-40d4-aec5-b250aac1cde8-master.m3u8https://video.igem.org/videos/embed/4TLrpdvSq3KhAHKQevgjYB18000242022-10-29T07:26:43.501ZYES2022 Judging SessionsNOhttps://video.igem.org/w/oKYWLCoznToKTkdMg1RSK1https://video.igem.org/lazy-static/thumbnails/7ff544df-a0a7-422e-ade4-c26994e71e02.jpgUNSW_Australia: Judging Session (2022)[Wiki](https://2022.igem.wiki/unsw-australia)https://static.igem.org/peertube/streaming-playlists/hls/b84d2034-8ded-4764-9e64-23c591bd250e/fc27122e-3686-4f63-9b7e-b07626b2fa07-master.m3u8https://video.igem.org/videos/embed/oKYWLCoznToKTkdMg1RSK118000102022-10-29T07:36:02.942ZYES2022 Judging SessionsNOhttps://video.igem.org/w/inDmV9a7RGNZeaoUMnZuhxhttps://video.igem.org/lazy-static/thumbnails/ea1e0a66-539d-4a17-b7c5-0a7d029a8d8c.jpgBeijing_United: Judging Session (2022)[Wiki](https://2022.igem.wiki/beijing-united)https://static.igem.org/peertube/streaming-playlists/hls/8cb1002d-6588-4852-93f8-0dc6a7d2e107/c4450e76-0d91-47dc-a58e-802cb2559e04-master.m3u8https://video.igem.org/videos/embed/inDmV9a7RGNZeaoUMnZuhx18000302022-10-29T07:45:42.906ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pmnfrwy6m637hpv5Rptq3Qhttps://video.igem.org/lazy-static/thumbnails/1a7055b6-9113-4a2f-9386-2c1f0f35cee2.jpgLZU-HS-China-E: Judging Session (2022)[Wiki](https://2022.igem.wiki/lzu-hs-china-e)https://static.igem.org/peertube/streaming-playlists/hls/bd1a28e3-7e3d-4713-b696-5e26aa7da6cc/5ef93de0-28c6-40a0-92ee-56a42970f8d4-master.m3u8https://video.igem.org/videos/embed/pmnfrwy6m637hpv5Rptq3Q18000122022-10-29T07:55:33.496ZYES2022 Judging SessionsNOhttps://video.igem.org/w/p4oqp5Ey7xsLcXJjNiz3Bnhttps://video.igem.org/lazy-static/thumbnails/ee5dcca6-0e12-438c-81e8-b59c971495b9.jpgGroningen: Judging Session (2022)[Wiki](https://2022.igem.wiki/groningen)https://static.igem.org/peertube/streaming-playlists/hls/babb3cda-7b93-4728-b333-b828b661f0c3/e4ab6f26-929b-40a5-9e34-17b7e10df059-master.m3u8https://video.igem.org/videos/embed/p4oqp5Ey7xsLcXJjNiz3Bn1800072022-10-29T08:05:34.266ZYES2022 Judging SessionsNOhttps://video.igem.org/w/t4NdgH8R3WcsjHiDh4Begqhttps://video.igem.org/lazy-static/thumbnails/323db508-78ba-4635-9f2a-c60d8d3aa088.jpgICJFLS: Judging Session (2022)[Wiki](https://2022.igem.wiki/icjfls)https://static.igem.org/peertube/streaming-playlists/hls/db2e743a-9cb5-4dab-b378-862906ee39ba/6eab7594-b6a2-4ab8-a6a2-b9672a967f45-master.m3u8https://video.igem.org/videos/embed/t4NdgH8R3WcsjHiDh4Begq1800092022-10-29T08:31:28.914ZYES2022 Judging SessionsNOhttps://video.igem.org/w/9N6JJGT9Pmt3wRJytdwqSMhttps://video.igem.org/lazy-static/thumbnails/41f59c50-2782-4e8b-97ce-e709c640e88a.jpgShanghai_Metropolis: Judging Session (2022)[Wiki](https://2022.igem.wiki/shanghai-metropolis)https://static.igem.org/peertube/streaming-playlists/hls/4738dbaf-a09a-4ab9-b142-02f4dae4da31/1a6b6823-f7df-4fb5-a778-b0345e5c5d50-master.m3u8https://video.igem.org/videos/embed/9N6JJGT9Pmt3wRJytdwqSM1800072022-10-29T08:40:58.964ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hCq4hZ9XZG7qXywyDQpgkVhttps://video.igem.org/lazy-static/thumbnails/6918f3a4-58b9-48ec-882e-6e9ea28b1bb5.jpgParis_Bettencourt: Judging Session (2022)[Wiki](https://2022.igem.wiki/paris-bettencourt)https://static.igem.org/peertube/streaming-playlists/hls/86a7d1dd-f680-472b-b111-f4cb96c9bf57/f34eb245-2d90-4ee8-822c-4f032604ab90-master.m3u8https://video.igem.org/videos/embed/hCq4hZ9XZG7qXywyDQpgkV18000152022-10-29T09:08:37.530ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6gvedfAwWy67LoYsCn6x2Rhttps://video.igem.org/lazy-static/thumbnails/7a8d92ac-4811-4851-b97f-f99fa727c09e.jpgUiOslo_Norway: Judging Session (2022)[Wiki](https://2022.igem.wiki/uioslo-norway)https://static.igem.org/peertube/streaming-playlists/hls/2aa7dcb3-3208-45d7-b708-56813c9413df/48579683-759f-4780-9e60-e23fe454c9ce-master.m3u8https://video.igem.org/videos/embed/6gvedfAwWy67LoYsCn6x2R1800082022-10-29T09:17:48.839ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ePXXtJwEXAm7UJUuV4q1r8https://video.igem.org/lazy-static/thumbnails/6d7220ac-fd48-432a-84d9-a6a2c6b89678.jpgUIncheon: Judging Session (2022)[Wiki](https://2022.igem.wiki/uincheon)https://static.igem.org/peertube/streaming-playlists/hls/6ff93e83-ed65-4e3b-8e7e-a07a756c95c1/881ca96a-9e5f-4f99-bf44-4c83ea211682-master.m3u8https://video.igem.org/videos/embed/ePXXtJwEXAm7UJUuV4q1r81800092022-10-29T09:26:42.048ZYES2022 Judging SessionsNOhttps://video.igem.org/w/qJGHAT68kyo13CgEXRxyNjhttps://video.igem.org/lazy-static/thumbnails/b46a33dd-7944-42e8-af94-95724c65f5a9.jpgVIT_Vellore: Judging Session (2022)[Wiki](https://2022.igem.wiki/vit-vellore)https://static.igem.org/peertube/streaming-playlists/hls/c851a8b9-de03-46a9-92f5-3dc9c6307246/04d8da94-d9f0-4070-b565-6d1fd3ff4c2e-master.m3u8https://video.igem.org/videos/embed/qJGHAT68kyo13CgEXRxyNj18000292022-10-29T09:55:33.621ZYES2022 Judging SessionsNOhttps://video.igem.org/w/esf2VQR5Fh8KzmY4txUtLdhttps://video.igem.org/lazy-static/thumbnails/fe35ba70-f56c-4ed6-b3f2-b2aaca11b9c0.jpgFAFU: Judging Session (2022)[Wiki](https://2022.igem.wiki/fafu)https://static.igem.org/peertube/streaming-playlists/hls/6cf0c9f5-0d9b-4ae6-bf52-72373c746a80/8a3fe612-c83a-44d4-a4ab-83e92c3df7dd-master.m3u8https://video.igem.org/videos/embed/esf2VQR5Fh8KzmY4txUtLd18000212022-10-28T22:36:50.712ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ifftXcgJpSK4qm1cEjEi7Mhttps://video.igem.org/lazy-static/thumbnails/57b8ded7-0f17-467e-84e4-6ba908c7ee25.jpgMontpellier: Judging Session (2022)[Wiki](https://2022.igem.wiki/montpellier)https://static.igem.org/peertube/streaming-playlists/hls/8ba8b1de-9b26-457b-8bdf-5f2dd399f07d/4744292e-2158-43f1-b597-74a3d3b89c5e-master.m3u8https://video.igem.org/videos/embed/ifftXcgJpSK4qm1cEjEi7M18000442022-10-28T22:55:29.209ZYES2022 Judging SessionsNOhttps://video.igem.org/w/tbokGcPss76bVBVdMfDQZPhttps://video.igem.org/lazy-static/thumbnails/3d1a13e0-dc96-4ea5-b583-5887f3ec3bba.jpgKAIT_JAPAN: Judging Session (2022)[Wiki](https://2022.igem.wiki/kait-japan)https://static.igem.org/peertube/streaming-playlists/hls/dc19f2e1-3332-4c87-a26c-5b7ba330bc21/a2d4faef-bb67-4562-b12f-196d317bbae2-master.m3u8https://video.igem.org/videos/embed/tbokGcPss76bVBVdMfDQZP18000132022-10-28T23:13:01.748ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5W3VUk5XXfiz9uXVW6D69Uhttps://video.igem.org/lazy-static/thumbnails/7904a892-bb33-4b74-bc92-f843bdb6cc3d.jpgBNDS_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bnds-china)https://static.igem.org/peertube/streaming-playlists/hls/27f08603-c896-44bd-baa4-42de782de150/869897b9-1cdc-41d4-a286-9a965347d9b9-master.m3u8https://video.igem.org/videos/embed/5W3VUk5XXfiz9uXVW6D69U18000202022-10-28T23:50:01.604ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6QVAa1mhKgsyTdYy5LgfEBhttps://video.igem.org/lazy-static/thumbnails/5be6d95b-6a5d-4388-ac3f-d59e16d3eee9.jpgBNU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bnu-china)https://static.igem.org/peertube/streaming-playlists/hls/2f526b69-cd50-48be-828d-606db2184c4f/4d6c7be6-2455-41fd-9120-225cce825124-master.m3u8https://video.igem.org/videos/embed/6QVAa1mhKgsyTdYy5LgfEB18000462022-10-29T00:07:09.413ZYES2022 Judging SessionsNOhttps://video.igem.org/w/kSyz2ert3GmhqJ4pf9ZPk5https://video.igem.org/lazy-static/thumbnails/d7525e86-cf18-46de-bdc3-44aedaa913c4.jpgNU_Kazakhstan: Judging Session (2022)[Wiki](https://2022.igem.wiki/nu-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/a0ece504-bd76-40ed-abd0-f5e22ff92156/f703e669-a897-4f6e-b48a-59e6c0f9b05d-master.m3u8https://video.igem.org/videos/embed/kSyz2ert3GmhqJ4pf9ZPk518000162022-10-29T00:25:45.819ZYES2022 Judging SessionsNOhttps://video.igem.org/w/56ng81ov1YWBupNYySShurhttps://video.igem.org/lazy-static/thumbnails/9daf204e-7361-46a6-a833-2fc08364742f.jpgShanghai_city: Judging Session (2022)[Wiki](https://2022.igem.wiki/shanghai-city)https://static.igem.org/peertube/streaming-playlists/hls/21246038-a044-4201-b5f8-ad9b2c8ea1a1/90aadd9f-f04e-4c90-a884-893620f7cd06-master.m3u8https://video.igem.org/videos/embed/56ng81ov1YWBupNYySShur1800042022-10-29T00:44:56.960ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3LnYad3anG7MAN8acySKQchttps://video.igem.org/lazy-static/thumbnails/fe6218de-9ada-4dc6-bdf6-3b24fcdf435b.jpgSCU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/scu-china)https://static.igem.org/peertube/streaming-playlists/hls/16648aa7-7590-4f8e-8a8b-18c97d37d367/efa787c3-35f6-4621-9150-775f59e7640c-master.m3u8https://video.igem.org/videos/embed/3LnYad3anG7MAN8acySKQc18000212022-10-29T05:23:40.426ZYES2022 Judging SessionsNOhttps://video.igem.org/w/aZ8FZ138KfkAfRJVNH4zm5https://video.igem.org/lazy-static/thumbnails/89902e14-1a20-40af-a1aa-05f7b8561d31.jpgSubCat_Shanghai: Judging Session (2022)[Wiki](https://2022.igem.wiki/subcat-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/50dc61ae-4199-43ce-8149-30bfdf46a038/6bb60f2e-bdbe-4ebb-98c8-5c2c3cbf7101-master.m3u8https://video.igem.org/videos/embed/aZ8FZ138KfkAfRJVNH4zm518000152022-10-29T05:50:43.114ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5c4WwbR3qeJkGeMvZdHD3vhttps://video.igem.org/lazy-static/thumbnails/afa67567-0a4a-4f5d-bfdf-1bf61cf1fd23.jpgSJTU-software: Judging Session (2022)[Wiki](https://2022.igem.wiki/sjtu-software)https://static.igem.org/peertube/streaming-playlists/hls/21f02a0a-b9f6-41a7-9fa4-5520e66a1b4d/098c2aee-9f1e-4d36-8881-aa71e6c57129-master.m3u8https://video.igem.org/videos/embed/5c4WwbR3qeJkGeMvZdHD3v18000192022-10-29T06:07:21.856ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fL7R1ogtnun41PWPrnqWemhttps://video.igem.org/lazy-static/thumbnails/cdbcd159-fcc9-4289-aebd-24f10df7437e.jpgToulouse_INSA-UPS: Judging Session (2022)[Wiki](https://2022.igem.wiki/toulouse-insa-ups)https://static.igem.org/peertube/streaming-playlists/hls/7788e2ad-d666-4a31-90b8-7c545aae8b0e/f93c8a6d-7e0d-4398-81eb-aad2426cdb03-master.m3u8https://video.igem.org/videos/embed/fL7R1ogtnun41PWPrnqWem18000282022-10-29T06:25:33.900ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pRStAaQKeqAq9ZVXgQxc8nhttps://video.igem.org/lazy-static/thumbnails/0f499fae-0865-4b4b-8c5a-390588ca3f58.jpgUppsala: Judging Session (2022)[Wiki](https://2022.igem.wiki/uppsala)https://static.igem.org/peertube/streaming-playlists/hls/c138bd9b-34e3-450d-9460-c5cc0d5bb1af/cdd8f8b9-1b4d-447d-91fc-9a2359c62227-master.m3u8https://video.igem.org/videos/embed/pRStAaQKeqAq9ZVXgQxc8n1800092022-10-29T06:43:01.403ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5QRr4zjuTTLMuzEx152Ayphttps://video.igem.org/lazy-static/thumbnails/c0cd5339-a17d-4239-b3ce-045dae12554e.jpgThessaly: Judging Session (2022)[Wiki](https://2022.igem.wiki/thessaly)https://static.igem.org/peertube/streaming-playlists/hls/2736b81e-4982-4f9a-a9e6-83c8312c4247/2dcb0bd0-59b0-4340-a24c-63fd4cfc3058-master.m3u8https://video.igem.org/videos/embed/5QRr4zjuTTLMuzEx152Ayp18000582022-10-29T07:00:38.162ZYES2022 Judging SessionsNOhttps://video.igem.org/w/74L81ZqpEQCfadqiU38MDPhttps://video.igem.org/lazy-static/thumbnails/4c5d4215-e484-46f5-9c28-db6ed9fc3d71.jpgIISER_TVM: Judging Session (2022)[Wiki](https://2022.igem.wiki/iiser-tvm)https://static.igem.org/peertube/streaming-playlists/hls/311d40f8-89c9-44df-860b-8dd04eede1dd/eb787e26-4450-4d94-bfed-317d6b1d5774-master.m3u8https://video.igem.org/videos/embed/74L81ZqpEQCfadqiU38MDP18000742022-10-29T07:17:23.421ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2t6wKpAteefuxnWBh3j8o2https://video.igem.org/lazy-static/thumbnails/87297d4e-45c1-4eab-9dae-2f1549f8ef6e.jpgNAU-CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/nau-china)https://static.igem.org/peertube/streaming-playlists/hls/0be1a0e6-ddf7-4c8b-b457-cc106621a8a9/174e008c-947d-42ea-8ac2-46b9bf623392-master.m3u8https://video.igem.org/videos/embed/2t6wKpAteefuxnWBh3j8o218000422022-10-29T08:22:05.517ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fEzBbruxYucPTxjDRmo3pUhttps://video.igem.org/lazy-static/thumbnails/ce3d1c7d-e376-4368-b15c-63651f3862d2.jpgRUBochum: Judging Session (2022)[Wiki](https://2022.igem.wiki/rubochum)https://static.igem.org/peertube/streaming-playlists/hls/76c2ea4f-56dd-4104-86a3-14b46c410d42/2763e25c-6edc-48d4-8f3f-bd4106888ca0-master.m3u8https://video.igem.org/videos/embed/fEzBbruxYucPTxjDRmo3pU18000192022-10-29T08:59:05.563ZYES2022 Judging SessionsNOhttps://video.igem.org/w/7wvnPVpEeRTELmrGQ6k1Zrhttps://video.igem.org/lazy-static/thumbnails/24a8bfe6-c532-44e2-92e7-baec0d594047.jpgNCHU_Taichung: Judging Session (2022)[Wiki](https://2022.igem.wiki/nchu-taichung)https://static.igem.org/peertube/streaming-playlists/hls/34d93fb5-13c5-40a4-b66c-52dff496b9cb/f315815d-1e8b-4c73-8da2-af93a57989df-master.m3u8https://video.igem.org/videos/embed/7wvnPVpEeRTELmrGQ6k1Zr1800062022-10-29T09:45:17.242ZYES2022 Judging SessionsNOhttps://video.igem.org/w/c6mRB6F7xTNsfCVmGFHYCBhttps://video.igem.org/lazy-static/thumbnails/8c0ce78e-ac42-48d2-9f7c-8cd2a0085960.jpgSYSU-Software: Judging Session (2022)[Wiki](https://2022.igem.wiki/sysu-software)https://static.igem.org/peertube/streaming-playlists/hls/59d418bc-290b-45ca-adb5-d34825f3b883/58ec10e3-95d9-4817-a138-e6bb35584c8c-master.m3u8https://video.igem.org/videos/embed/c6mRB6F7xTNsfCVmGFHYCB18000152022-10-29T10:13:08.769ZYES2022 Judging SessionsNOhttps://video.igem.org/w/kddEX9tiGNxsSpN36PiD9Xhttps://video.igem.org/lazy-static/thumbnails/726bbeb0-5978-4937-80c2-23bb1e4da038.jpgSorbonne_U_Paris: Judging Session (2022)[Wiki](https://2022.igem.wiki/sorbonne-u-paris)https://static.igem.org/peertube/streaming-playlists/hls/9b925e70-d964-4c67-b36d-284622f1b173/e0a344bb-71eb-4be4-975f-7a37707366b2-master.m3u8https://video.igem.org/videos/embed/kddEX9tiGNxsSpN36PiD9X18000262022-10-29T10:30:45.223ZYES2022 Judging SessionsNOhttps://video.igem.org/w/x2pXEpt1LbqF693ZKGGvzshttps://video.igem.org/lazy-static/thumbnails/13bcc901-45c2-4d9a-ab9a-135724d761bd.jpgUni-Hamburg: Judging Session (2022)[Wiki](https://2022.igem.wiki/uni-hamburg)https://static.igem.org/peertube/streaming-playlists/hls/fb3dced3-7e20-4021-9a64-29358f6f4688/8d2af2dd-d798-4a05-bf09-6ce03452824e-master.m3u8https://video.igem.org/videos/embed/x2pXEpt1LbqF693ZKGGvzs18000152022-10-29T10:47:56.547ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5sqCmtSLbdUQgf7rrWykp9https://video.igem.org/lazy-static/thumbnails/648f868c-97d2-4b20-ad0e-84ba45bfef15.jpgTheKingsSchool_AU_HS: Judging Session (2022)[Wiki](https://2022.igem.wiki/thekingsschool-au-hs)https://static.igem.org/peertube/streaming-playlists/hls/241511c7-8ae9-4f96-8fec-82fa79e9912a/3c85faa1-87bc-4513-8e91-89c3251278de-master.m3u8https://video.igem.org/videos/embed/5sqCmtSLbdUQgf7rrWykp918000912022-10-29T11:05:37.671ZYES2022 Judging SessionsNOhttps://video.igem.org/w/vBsXVDZeb1X7e9yGJdVmqPhttps://video.igem.org/lazy-static/thumbnails/f5202866-f7be-44a8-8625-75e8097ccde8.jpgYiYe-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/yiye-china)https://static.igem.org/peertube/streaming-playlists/hls/efccab9e-4b6e-439e-9168-c9a8d5c2b3b7/d8684389-6d81-4e02-bebf-13ad7e703166-master.m3u8https://video.igem.org/videos/embed/vBsXVDZeb1X7e9yGJdVmqP1800092022-10-29T11:22:37.472ZYES2022 Judging SessionsNOhttps://video.igem.org/w/kSD2bJzx4wqaZMFNiFBzqUhttps://video.igem.org/lazy-static/thumbnails/ccd7c547-dd98-4eb3-bda2-5291101a74de.jpgLeiden: Judging Session (2022)[Wiki](https://2022.igem.wiki/leiden)https://static.igem.org/peertube/streaming-playlists/hls/a0efa33f-c4c8-4233-a5da-8a7fda9cabd0/60b70f51-4cb5-40d1-bb21-32eebe092eb5-master.m3u8https://video.igem.org/videos/embed/kSD2bJzx4wqaZMFNiFBzqU18000502022-10-29T11:40:23.722ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4hjWb4yNWAHW15ap2uHHhNhttps://video.igem.org/lazy-static/thumbnails/f52fc833-41e2-40c2-a228-5ae549a55bea.jpgAalto-Helsinki: Judging Session (2022)[Wiki](https://2022.igem.wiki/aalto-helsinki)https://static.igem.org/peertube/streaming-playlists/hls/1a92fc1c-5bb8-46d7-9455-62b504d8a49a/2c64b65d-8c95-4989-8a6a-d90dd2ca5320-master.m3u8https://video.igem.org/videos/embed/4hjWb4yNWAHW15ap2uHHhN1800092022-10-29T11:57:43.889ZYES2022 Judging SessionsNOhttps://video.igem.org/w/i1HomTcMP8FqFf884VF9dRhttps://video.igem.org/lazy-static/thumbnails/0da3be4d-9fe0-4e96-910b-ddc0271f9797.jpgQdai: Judging Session (2022)[Wiki](https://2022.igem.wiki/qdai)https://static.igem.org/peertube/streaming-playlists/hls/89c4dca8-db0a-4c2a-819d-0a30b9311e91/7c2415eb-e1fb-4a9a-8e76-99077be4e0fb-master.m3u8https://video.igem.org/videos/embed/i1HomTcMP8FqFf884VF9dR1800082022-10-29T12:15:16.828ZYES2022 Judging SessionsNOhttps://video.igem.org/w/95rSBe1cfY6pEJ5eLBkQirhttps://video.igem.org/lazy-static/thumbnails/0a95e085-0a8b-4e66-bd7f-9f5350ca7283.jpgHK_CPU-WYY: Judging Session (2022)[Wiki](https://2022.igem.wiki/hk-cpu-wyy)https://static.igem.org/peertube/streaming-playlists/hls/41680764-9f94-4418-8cb8-938d70f0919b/1f9a1930-61a1-4bbc-b6f3-d743f17ee946-master.m3u8https://video.igem.org/videos/embed/95rSBe1cfY6pEJ5eLBkQir1800002022-10-29T12:32:58.548ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pnmkZaeBygBvJ3Hp7z6JJVhttps://video.igem.org/lazy-static/thumbnails/7ed85ff9-1af9-4380-8894-51b26fd82f17.jpgWaseda_Tokyo: Judging Session (2022)[Wiki](https://2022.igem.wiki/waseda-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/bd3d589c-b5b5-4b67-b0e8-b1c98ab0e579/65dca2c3-ba11-43e0-94b1-b73c827840a5-master.m3u8https://video.igem.org/videos/embed/pnmkZaeBygBvJ3Hp7z6JJV18000752022-10-29T12:50:30.180ZYES2022 Judging SessionsNOhttps://video.igem.org/w/aD7ZZiyG5YX34oWB3ygbHThttps://video.igem.org/lazy-static/thumbnails/d20d75c3-e1a6-4e43-8692-a93d78c8518e.jpgCUG-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/cug-china)https://static.igem.org/peertube/streaming-playlists/hls/4e1114c9-e166-4900-9db3-daee213b983d/216cdc16-05bc-42c8-bd96-604245f76e5b-master.m3u8https://video.igem.org/videos/embed/aD7ZZiyG5YX34oWB3ygbHT18000232022-10-29T13:07:28.983ZYES2022 Judging SessionsNOhttps://video.igem.org/w/g57xnA1hLq5vH9o3PC6iWJhttps://video.igem.org/lazy-static/thumbnails/310c28f9-3e03-44d3-9e6f-618e0be478bc.jpgBNUZH-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bnuzh-china)https://static.igem.org/peertube/streaming-playlists/hls/7a0c1600-fac1-4ff1-ba83-8f140c39b6b2/55c4286a-1dc7-4462-b477-9b955f567218-master.m3u8https://video.igem.org/videos/embed/g57xnA1hLq5vH9o3PC6iWJ18000302022-10-29T13:25:37.600ZYES2022 Judging SessionsNOhttps://video.igem.org/w/cngx1pCg8646APLaCTBX5Qhttps://video.igem.org/lazy-static/thumbnails/a75b5b64-852b-4e63-98ff-bb449dda22ee.jpgNPU-CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/npu-china)https://static.igem.org/peertube/streaming-playlists/hls/5c0cb7cc-dbe8-4947-9677-9352a49a913c/4c0c3627-6a11-4f18-b5e3-a5b1c35c9f74-master.m3u8https://video.igem.org/videos/embed/cngx1pCg8646APLaCTBX5Q18000342022-10-29T13:43:48.130ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5szbo6RYMRNZC4h2XqwtrPhttps://video.igem.org/lazy-static/thumbnails/b8a7a384-cada-441e-8434-3263cdbeb999.jpgIISER_Berhampur: Judging Session (2022)[Wiki](https://2022.igem.wiki/iiser-berhampur)https://static.igem.org/peertube/streaming-playlists/hls/241a5705-fd54-4793-a42f-569433aeb575/411a4aeb-c601-455e-873d-29e772c6fff2-master.m3u8https://video.igem.org/videos/embed/5szbo6RYMRNZC4h2XqwtrP18000102022-10-29T14:01:05.544ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6Bakp258Dfoo8hNWuAqx9hhttps://video.igem.org/lazy-static/thumbnails/d815e4e6-a607-4f4c-8ce4-f4c2655cb2b0.jpgSogang_Korea: Judging Session (2022)[Wiki](https://2022.igem.wiki/sogang-korea)https://static.igem.org/peertube/streaming-playlists/hls/2d667a50-d7fc-442b-9891-268051ff491c/9e02de46-5147-4fd4-afac-ab4794c45e5e-master.m3u8https://video.igem.org/videos/embed/6Bakp258Dfoo8hNWuAqx9h18000142022-10-29T14:20:46.087ZYES2022 Judging SessionsNOhttps://video.igem.org/w/sRrbaS7uX37XHhJc5ByHmZhttps://video.igem.org/lazy-static/thumbnails/cf32c6a5-d837-4023-8041-2419f88403e3.jpgBGU_Israel: Judging Session (2022)[Wiki](https://2022.igem.wiki/bgu-israel)https://static.igem.org/peertube/streaming-playlists/hls/d9749093-5249-486b-b9b6-8a98769fc7f5/a066f7ab-828f-49a9-9b14-8b8894a91e4f-master.m3u8https://video.igem.org/videos/embed/sRrbaS7uX37XHhJc5ByHmZ18000162022-10-29T14:39:57.651ZYES2022 Judging SessionsNOhttps://video.igem.org/w/cPQ7btUvdC84ExpwGiVGrThttps://video.igem.org/lazy-static/thumbnails/7d4bc590-9ffd-4cda-8bc2-a0c9b0fa5132.jpgWilliam_and_Mary: Judging Session (2022)[Wiki](https://2022.igem.wiki/william-and-mary)https://static.igem.org/peertube/streaming-playlists/hls/5fc22111-7feb-4daa-8bec-bcdbcbf428d5/8de12fa4-869d-4202-acdd-d1388c3d7177-master.m3u8https://video.igem.org/videos/embed/cPQ7btUvdC84ExpwGiVGrT18000822022-10-29T14:56:53.432ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6tWag2cmNe8YQHJAJSTPSMhttps://video.igem.org/lazy-static/thumbnails/be7b7ee3-d520-4599-ad2f-26fbbd52a8bd.jpgTHINKER_CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/thinker-china)https://static.igem.org/peertube/streaming-playlists/hls/2c6426f3-76e3-4443-ac8d-87e23582a2f5/54f92c35-9c59-4ee2-9317-8b1fa7172452-master.m3u8https://video.igem.org/videos/embed/6tWag2cmNe8YQHJAJSTPSM18000122022-10-29T15:15:38.214ZYES2022 Judging SessionsNOhttps://video.igem.org/w/dB3kpbJnPShFdJE4P8HZ3mhttps://video.igem.org/lazy-static/thumbnails/4bb777c5-4cd6-4a3f-a445-7a9c79c7342b.jpgTU-Eindhoven: Judging Session (2022)[Wiki](https://2022.igem.wiki/tu-eindhoven)https://static.igem.org/peertube/streaming-playlists/hls/66122271-6ceb-425c-9912-bfe54e42b184/01939c1e-fcad-44a7-9f47-ed7396de91b2-master.m3u8https://video.igem.org/videos/embed/dB3kpbJnPShFdJE4P8HZ3m180003942022-10-29T15:33:31.432ZYES2022 Judging SessionsNOhttps://video.igem.org/w/v3jNMtAEVr5jVjXVwCs2whhttps://video.igem.org/lazy-static/thumbnails/d828b72b-d23f-45ff-a9f3-6374053d9840.jpgXMU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/xmu-china)https://static.igem.org/peertube/streaming-playlists/hls/eb2c1942-949a-4738-9e13-a60b2e5d93d0/a4ce8870-bdd1-404d-9ddf-2af7a1b8ee4a-master.m3u8https://video.igem.org/videos/embed/v3jNMtAEVr5jVjXVwCs2wh18000272022-10-29T15:51:02.528ZYES2022 Judging SessionsNOhttps://video.igem.org/w/qSaVdezcZQWiAjHNHJBmauhttps://video.igem.org/lazy-static/thumbnails/efca91d5-834a-422f-a520-376ba9e97736.jpgIISER_Bhopal: Judging Session (2022)[Wiki](https://2022.igem.wiki/iiser-bhopal)https://static.igem.org/peertube/streaming-playlists/hls/c95ca0cf-f2aa-490f-8010-aa2ec05f1fae/8ac498eb-a4c8-470c-86c3-bc4fda730f4f-master.m3u8https://video.igem.org/videos/embed/qSaVdezcZQWiAjHNHJBmau18000192022-10-29T16:10:01.758ZYES2022 Judging SessionsNOhttps://video.igem.org/w/mz2QvasPkadg14WY3M3W15https://video.igem.org/lazy-static/thumbnails/384e9bc6-2923-4aa1-b9db-c69035b08e27.jpgXHD-Wuhan-Pro-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/xhd-wuhan-pro-china)https://static.igem.org/peertube/streaming-playlists/hls/a6937301-8c50-40b1-af14-83fa005e74fc/ced730c1-2064-46c2-968a-fdc07154dd55-master.m3u8https://video.igem.org/videos/embed/mz2QvasPkadg14WY3M3W151800082022-10-29T16:26:06.670ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3K2wcuNnm8qYQUQ9GvzmFwhttps://video.igem.org/lazy-static/thumbnails/b7547a70-1449-44df-aadb-45a9286b2a8f.jpgECNUAS: Judging Session (2022)[Wiki](https://2022.igem.wiki/ecnuas)https://static.igem.org/peertube/streaming-playlists/hls/16343252-5ddc-4b47-b30a-c9008105d8bc/d3fa9bac-1161-4480-900a-4120cfc9769b-master.m3u8https://video.igem.org/videos/embed/3K2wcuNnm8qYQUQ9GvzmFw1800092022-10-29T17:19:59.972ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jQbjS5EJhRtb9fLcnEZNvihttps://video.igem.org/lazy-static/thumbnails/2f8abd40-837c-461d-809d-17b8a677c990.jpgHKUST: Judging Session (2022)[Wiki](https://2022.igem.wiki/hkust)https://static.igem.org/peertube/streaming-playlists/hls/987e8f5b-8306-4971-89cd-cd250a85ed43/24ee38e7-c9f9-4729-8b88-071679d1edf4-master.m3u8https://video.igem.org/videos/embed/jQbjS5EJhRtb9fLcnEZNvi180002092022-10-29T16:43:57.370ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2qqJxWbF9z8p8S1QgYiXXNhttps://video.igem.org/lazy-static/thumbnails/930e8e15-3c31-4f2f-a7a8-ba2c1f073dd1.jpgCU_Egypt: Judging Session (2022)[Wiki](https://2022.igem.wiki/cu-egypt)https://static.igem.org/peertube/streaming-playlists/hls/0b823b56-09ac-47f8-adb8-8e94cdd613e8/5f8cabec-c412-4200-9b98-f2e72c6d4eb5-master.m3u8https://video.igem.org/videos/embed/2qqJxWbF9z8p8S1QgYiXXN18000432022-10-29T17:01:04.827ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5xaVhRApCQy44kVVehgaK2https://video.igem.org/lazy-static/thumbnails/d72f4d22-f08c-4e03-8fe3-9f586694c2b7.jpgCity_of_London_UK: Judging Session (2022)[Wiki](https://2022.igem.wiki/city-of-london-uk)https://static.igem.org/peertube/streaming-playlists/hls/24beb964-80e0-410e-b991-70ff4c65773b/fefca711-eec4-4610-bd6b-18466a3ea372-master.m3u8https://video.igem.org/videos/embed/5xaVhRApCQy44kVVehgaK218000362022-10-29T17:36:29.085ZYES2022 Judging SessionsNOhttps://video.igem.org/w/mwr7yU7bKaqttcrxhy5vwKhttps://video.igem.org/lazy-static/thumbnails/090c0366-9ad7-44ed-9e55-93d1cce27908.jpgBarcelona_UB: Judging Session (2022)[Wiki](https://2022.igem.wiki/barcelona-ub)https://static.igem.org/peertube/streaming-playlists/hls/a6369018-a98b-4caa-986a-eb26a5d875eb/a772daa7-3f82-4344-aefe-9dc0ad7cdabe-master.m3u8https://video.igem.org/videos/embed/mwr7yU7bKaqttcrxhy5vwK18000192022-10-29T17:55:05.815ZYES2022 Judging SessionsNOhttps://video.igem.org/w/hqUVLqoBjGgA1z6wYPDZGZhttps://video.igem.org/lazy-static/thumbnails/2586488a-2855-4e14-a8cf-d60a02bcaf6d.jpgCanton_HS: Judging Session (2022)[Wiki](https://2022.igem.wiki/canton-hs)https://static.igem.org/peertube/streaming-playlists/hls/850cafbb-ea7d-4d29-89cf-eb6d865bd005/a0d87cfc-d549-4647-a472-fae7b5c53c9b-master.m3u8https://video.igem.org/videos/embed/hqUVLqoBjGgA1z6wYPDZGZ18000192022-10-29T18:12:31.885ZYES2022 Judging SessionsNOhttps://video.igem.org/w/iKMaxTYHGxyi3nXW1vdauvhttps://video.igem.org/lazy-static/thumbnails/95437696-87e6-4f6e-b6f8-2ab9f7f61a05.jpgFreiburg: Judging Session (2022)[Wiki](https://2022.igem.wiki/freiburg)https://static.igem.org/peertube/streaming-playlists/hls/8fc82c4c-23e4-420e-b988-12f15964c169/b5207d0c-128d-4af5-8243-7ee2c612e412-master.m3u8https://video.igem.org/videos/embed/iKMaxTYHGxyi3nXW1vdauv18000492022-10-29T19:05:20.435ZYES2022 Judging SessionsNOhttps://video.igem.org/w/g94zzHbkusZspYsCNBe11mhttps://video.igem.org/lazy-static/thumbnails/357c6257-ae8a-492e-935b-8e258fb53dde.jpgNWU-CHINA-A: Judging Session (2022)[Wiki](https://2022.igem.wiki/nwu-china-a)https://static.igem.org/peertube/streaming-playlists/hls/7a993c56-153d-471d-b559-1a7392c1500c/75aab96a-6b03-45ed-bcd4-1738759066d6-master.m3u8https://video.igem.org/videos/embed/g94zzHbkusZspYsCNBe11m18000352022-10-29T18:30:19.627ZYES2022 Judging SessionsNOhttps://video.igem.org/w/tMSYjHoJGfiqJSsoPuz2e8https://video.igem.org/lazy-static/thumbnails/89a1d3ad-d7f4-4dd2-89bf-5b6a930f7aa9.jpgUM_Macau: Judging Session (2022)[Wiki](https://2022.igem.wiki/um-macau)https://static.igem.org/peertube/streaming-playlists/hls/e10ea021-ae78-4b0c-a5fe-772bd4338de5/bc560aed-0da5-4684-a1fc-f6894b62bf1d-master.m3u8https://video.igem.org/videos/embed/tMSYjHoJGfiqJSsoPuz2e818000212022-10-29T18:47:08.617ZYES2022 Judging SessionsNOhttps://video.igem.org/w/wxn9BHGHchMGZijFRKabcZhttps://video.igem.org/lazy-static/thumbnails/c5ca1078-d2ec-4252-9972-77f77d16d85f.jpgSHSBNU_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/shsbnu-china)https://static.igem.org/peertube/streaming-playlists/hls/f7533ffb-2832-453f-9216-f71385f71a97/76742189-5818-450b-8deb-5c55f1f2b897-master.m3u8https://video.igem.org/videos/embed/wxn9BHGHchMGZijFRKabcZ18000382022-10-29T19:40:15.098ZYES2022 Judging SessionsNOhttps://video.igem.org/w/kbeaDVM3MkokAk5XHRasFYhttps://video.igem.org/lazy-static/thumbnails/ac8b2b74-f1e5-43ec-86c0-cb3b69d59d1d.jpgSJTU-BioX-Shanghai: Judging Session (2022)[Wiki](https://2022.igem.wiki/sjtu-biox-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/9b4b2fb4-b252-426b-999c-98deb6c9d58e/b78a2953-518b-43ef-a98c-07eb623da143-master.m3u8https://video.igem.org/videos/embed/kbeaDVM3MkokAk5XHRasFY18000332022-10-29T19:21:48.540ZYES2022 Judging SessionsNOhttps://video.igem.org/w/vGLrv2Rm2jcvcCEzpxdr2Lhttps://video.igem.org/lazy-static/thumbnails/67a661aa-37eb-48a9-a865-73a84cd82d2f.jpgWarwick: Judging Session (2022)[Wiki](https://2022.igem.wiki/warwick)https://static.igem.org/peertube/streaming-playlists/hls/f08a28aa-cb1d-455e-9e02-07bbb17b745a/4ea5d796-6654-45da-86a3-959b02345614-master.m3u8https://video.igem.org/videos/embed/vGLrv2Rm2jcvcCEzpxdr2L1800072022-10-29T19:57:24.484ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3UrxTjqvu1Um7kEreMMiUhhttps://video.igem.org/lazy-static/thumbnails/bb043c48-8c1d-4cc6-a7e3-3063b8043bf8.jpgCrete: Judging Session (2022)[Wiki](https://2022.igem.wiki/crete)https://static.igem.org/peertube/streaming-playlists/hls/1784b2ee-13ea-4ab0-91d6-9ed9629e9374/1846a93d-2480-465a-b573-23a2d2288a24-master.m3u8https://video.igem.org/videos/embed/3UrxTjqvu1Um7kEreMMiUh18000232022-10-29T20:15:33.822ZYES2022 Judging SessionsNOhttps://video.igem.org/w/1mx3DBjazVCCzy892a86zhhttps://video.igem.org/lazy-static/thumbnails/b8bc1cf2-4997-40cf-b07e-fa327bac9ad3.jpgIISER-Pune2_India: Judging Session (2022)[Wiki](https://2022.igem.wiki/iiser-pune2-india)https://static.igem.org/peertube/streaming-playlists/hls/02de020a-475b-4057-8982-28ba3edf0106/04285552-ff4f-4d18-a236-bd1a0f9912ec-master.m3u8https://video.igem.org/videos/embed/1mx3DBjazVCCzy892a86zh180001672022-10-29T20:33:12.901ZYES2022 Judging SessionsNOhttps://video.igem.org/w/gsMD9QpgoFz1N1b1AV4K9Zhttps://video.igem.org/lazy-static/thumbnails/d2f3caad-6e8c-4138-8cf8-cca338d5f061.jpgEstonia_TUIT: Judging Session (2022)[Wiki](https://2022.igem.wiki/estonia-tuit)https://static.igem.org/peertube/streaming-playlists/hls/7d368b7f-6448-433d-96cc-8d510357461d/42fefcda-35ff-49c0-97d4-024f647f8ac1-master.m3u8https://video.igem.org/videos/embed/gsMD9QpgoFz1N1b1AV4K9Z18000292022-10-29T20:50:46.148ZYES2022 Judging SessionsNOhttps://video.igem.org/w/c9DZZsHffezms1qGB8jevZhttps://video.igem.org/lazy-static/thumbnails/e62bd3e9-5a46-42c6-bcdc-f8b150e23a68.jpgBFSU-ICUnited: Judging Session (2022)[Wiki](https://2022.igem.wiki/bfsu-icunited)https://static.igem.org/peertube/streaming-playlists/hls/5a49e4c6-7371-43a8-b296-56673dff3abf/ea19412a-5582-4936-a373-f687b74a62c3-master.m3u8https://video.igem.org/videos/embed/c9DZZsHffezms1qGB8jevZ18000122022-10-28T11:28:11.656ZYES2022 Judging SessionsNOhttps://video.igem.org/w/cRG2uU6R6VAX6c3fGKk1Y3https://video.igem.org/lazy-static/thumbnails/611d6dfa-e2ae-4932-a61c-bef99cc9f2b3.jpgIIT_Roorkee: Judging Session (2022)[Wiki](https://2022.igem.wiki/iit-roorkee)https://static.igem.org/peertube/streaming-playlists/hls/6004a304-5a4d-48e7-8af2-a865743585da/8c7c89ce-e23f-4909-beeb-f3621cca390f-master.m3u8https://video.igem.org/videos/embed/cRG2uU6R6VAX6c3fGKk1Y318000742022-10-28T11:37:54.553ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5usKprCHBhY4GmYpgdRkvrhttps://video.igem.org/lazy-static/thumbnails/4ea78189-6be9-41b5-b833-a9d4bed23efa.jpgKU_Leuven: Judging Session (2022)[Wiki](https://2022.igem.wiki/ku-leuven)https://static.igem.org/peertube/streaming-playlists/hls/245ddd4c-ebc4-48ef-87bc-3dc628004edf/a732121b-c7e1-4e00-94dd-7e770182e59b-master.m3u8https://video.igem.org/videos/embed/5usKprCHBhY4GmYpgdRkvr18000112022-10-28T11:47:39.519ZYES2022 Judging SessionsNOhttps://video.igem.org/w/fR8tPZ6AG352E42wCdcoyqhttps://video.igem.org/lazy-static/thumbnails/98441e3e-8159-431f-931e-8f516001648f.jpgHBUT-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/hbut-china)https://static.igem.org/peertube/streaming-playlists/hls/783bfedc-4a73-424c-9d85-5cba085c1868/15108eef-accc-40b5-a2aa-2ee81cd92715-master.m3u8https://video.igem.org/videos/embed/fR8tPZ6AG352E42wCdcoyq18000172022-10-28T11:56:46.127ZYES2022 Judging SessionsNOhttps://video.igem.org/w/vp37T8kKtESWdSUBfzrtTohttps://video.igem.org/lazy-static/thumbnails/6fc86e3e-3af7-4a49-b23d-0dd83d1ddb1a.jpgMIT_MAHE: Judging Session (2022)[Wiki](https://2022.igem.wiki/mit-mahe)https://static.igem.org/peertube/streaming-playlists/hls/ee106efa-a34e-406c-9987-bc4c670e08e8/a7f6d522-de82-4768-8cf7-8461edf05c2c-master.m3u8https://video.igem.org/videos/embed/vp37T8kKtESWdSUBfzrtTo18000272022-10-28T12:10:15.073ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3sau9WvohKUKqfekEbSXuPhttps://video.igem.org/lazy-static/thumbnails/2d3a34b0-9da9-4f45-bc57-ff28a14937bd.jpgSYSU-CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/sysu-china)https://static.igem.org/peertube/streaming-playlists/hls/13d975ff-dbd7-43f0-93bc-8622521886b3/fee07e89-f36e-4aea-8eb3-6ac70c125a58-master.m3u8https://video.igem.org/videos/embed/3sau9WvohKUKqfekEbSXuP18000162022-10-28T12:20:12.955ZYES2022 Judging SessionsNOhttps://video.igem.org/w/atnDpJ3oL4pT1uiiaqXvoMhttps://video.igem.org/lazy-static/thumbnails/4b48d634-789b-40dc-89da-d76eb90d11a6.jpgFudan: Judging Session (2022)[Wiki](https://2022.igem.wiki/fudan)https://static.igem.org/peertube/streaming-playlists/hls/4cb4ab3e-ab22-4045-82b2-3090ec3549b5/7967b563-7e35-4302-93a2-c50402ea05ed-master.m3u8https://video.igem.org/videos/embed/atnDpJ3oL4pT1uiiaqXvoM18000692022-10-28T12:30:32.127ZYES2022 Judging SessionsNOhttps://video.igem.org/w/a6v4MWTcTKJR3YTrojG8gAhttps://video.igem.org/lazy-static/thumbnails/6460200d-b97b-4265-8364-90dc8e19c1e3.jpgMSP-Maastricht: Judging Session (2022)[Wiki](https://2022.igem.wiki/msp-maastricht)https://static.igem.org/peertube/streaming-playlists/hls/49a6e104-0f8e-4f6d-ba32-f867fc93e064/43cf999d-a26e-42fd-b7bc-aec3898f04a9-master.m3u8https://video.igem.org/videos/embed/a6v4MWTcTKJR3YTrojG8gA18000192022-10-28T12:40:41.238ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rREe1HPDgjwvh3zk5NuV1Ahttps://video.igem.org/lazy-static/thumbnails/8015b28b-50fe-43e9-94ff-0a0c03066226.jpgNavarra_BG: Judging Session (2022)[Wiki](https://2022.igem.wiki/navarra-bg)https://static.igem.org/peertube/streaming-playlists/hls/d16377c3-4cd4-40cf-abf9-bfd0aef33b96/9bb76759-a30c-448c-823c-6ffdfec04bbf-master.m3u8https://video.igem.org/videos/embed/rREe1HPDgjwvh3zk5NuV1A1800052022-10-28T12:50:55.178ZYES2022 Judging SessionsNOhttps://video.igem.org/w/u511nCAPbyhCrnSitHxPZbhttps://video.igem.org/lazy-static/thumbnails/5528317f-f772-49ff-938e-000354d1056f.jpgThessaloniki: Judging Session (2022)[Wiki](https://2022.igem.wiki/thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/e34edc8c-bbbd-4118-af53-ecbb4dfea718/8a6ca886-41a8-4f12-8478-e422b38ba0c3-master.m3u8https://video.igem.org/videos/embed/u511nCAPbyhCrnSitHxPZb18000262022-10-28T13:00:54.947ZYES2022 Judging SessionsNOhttps://video.igem.org/w/3FHtMSQx8h7pGUXjP3hTUGhttps://video.igem.org/lazy-static/thumbnails/f48170f3-6536-4a22-85e7-6a9db651906c.jpgShanghai_HS: Judging Session (2022)[Wiki](https://2022.igem.wiki/shanghai-hs)https://static.igem.org/peertube/streaming-playlists/hls/15bdd8c7-0dcb-4655-9b2c-5a213bee611c/8e5b942f-f4a3-46fb-97af-8a114d7cc840-master.m3u8https://video.igem.org/videos/embed/3FHtMSQx8h7pGUXjP3hTUG1800062022-10-28T13:13:48.579ZYES2022 Judging SessionsNOhttps://video.igem.org/w/9BhmejpWUokprHp7ur1v11https://video.igem.org/lazy-static/thumbnails/a3521ba3-9673-4ad4-8e01-a8d77b6b2680.jpgUCopenhagen: Judging Session (2022)[Wiki](https://2022.igem.wiki/ucopenhagen)https://static.igem.org/peertube/streaming-playlists/hls/45b6376e-58d1-48f7-b69f-f0de36dabf24/14ec18f5-c1ad-4656-a08f-a13187499201-master.m3u8https://video.igem.org/videos/embed/9BhmejpWUokprHp7ur1v11180002142022-10-28T13:22:25.902ZYES2022 Judging SessionsNOhttps://video.igem.org/w/oEbqjZKThDNLCd2D9c4okhhttps://video.igem.org/lazy-static/thumbnails/8516dffb-d555-4d09-b872-f7e56375acf3.jpgWHU-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/whu-china)https://static.igem.org/peertube/streaming-playlists/hls/b77dbc28-2813-4484-b43c-a022db94065e/b0b4ac70-c277-4bde-a93c-f797ac2f1c60-master.m3u8https://video.igem.org/videos/embed/oEbqjZKThDNLCd2D9c4okh18000472022-10-28T13:33:46.840ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pmuVTDhMKCQvxNXVKnVdBBhttps://video.igem.org/lazy-static/thumbnails/e3134185-5391-4da5-9799-c1ecbb84f6cd.jpgUMaryland: Judging Session (2022)[Wiki](https://2022.igem.wiki/umaryland)https://static.igem.org/peertube/streaming-playlists/hls/bd1ee48e-73b9-4374-8dd0-e486b0e658f9/3de4ae38-d9ad-4206-b58a-c151f89dd503-master.m3u8https://video.igem.org/videos/embed/pmuVTDhMKCQvxNXVKnVdBB1800022022-10-28T13:45:14.982ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rXFFbnYzMPEVRWzbr4Ww8Mhttps://video.igem.org/lazy-static/thumbnails/6f85733f-5cc4-4387-a035-97828924cef0.jpgAshesiGhana: Judging Session (2022)[Wiki](https://2022.igem.wiki/ashesighana)https://static.igem.org/peertube/streaming-playlists/hls/d23ad322-7959-46be-9b90-e7660f86913b/da30da71-4914-457d-893b-31cb65541754-master.m3u8https://video.igem.org/videos/embed/rXFFbnYzMPEVRWzbr4Ww8M1800072022-10-28T14:05:25.076ZYES2022 Judging SessionsNOhttps://video.igem.org/w/x25f3TENFAsNcuCXpVPNqThttps://video.igem.org/lazy-static/thumbnails/c0c8ea18-6e8f-4da8-bb4b-d85c93b77c1d.jpgCambridge: Judging Session (2022)[Wiki](https://2022.igem.wiki/cambridge)https://static.igem.org/peertube/streaming-playlists/hls/fb31a817-13be-44aa-9b9d-933dbb8788e3/929a4734-8c85-477e-a299-0ee58cb59d0a-master.m3u8https://video.igem.org/videos/embed/x25f3TENFAsNcuCXpVPNqT18000222022-10-28T13:55:18.379ZYES2022 Judging SessionsNOhttps://video.igem.org/w/8DZBoiTBEhFd2S7DVWtGduhttps://video.igem.org/lazy-static/thumbnails/896270d4-73e5-4e19-82b2-dc3f6cda4413.jpgCPU_CHINA: Judging Session (2022)[Wiki](https://2022.igem.wiki/cpu-china)https://static.igem.org/peertube/streaming-playlists/hls/3dfdfe5b-758c-4852-a00e-4570289d486c/129632da-00e0-4566-9b5a-c1d812a3ae67-master.m3u8https://video.igem.org/videos/embed/8DZBoiTBEhFd2S7DVWtGdu180001162022-10-28T14:15:30.608ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5FqRVTrUqn7xbhCMFtVLyChttps://video.igem.org/lazy-static/thumbnails/cc4d78d3-9350-46fe-ae30-2736b9231c6d.jpgDuesseldorf: Judging Session (2022)[Wiki](https://2022.igem.wiki/duesseldorf)https://static.igem.org/peertube/streaming-playlists/hls/25e5e1f9-56c0-432b-8bd2-00594d3aa32c/88dd2f0d-876d-463e-be06-745abe4392d4-master.m3u8https://video.igem.org/videos/embed/5FqRVTrUqn7xbhCMFtVLyC18000152022-10-28T14:36:04.161ZYES2022 Judging SessionsNOhttps://video.igem.org/w/9yUEhD2jcRyua7gYdMNucbhttps://video.igem.org/lazy-static/thumbnails/34c42059-4c1e-4433-be9e-cdec8ec9bf7e.jpgBostonU_HW: Judging Session (2022)[Wiki](https://2022.igem.wiki/bostonu-hw)https://static.igem.org/peertube/streaming-playlists/hls/45615ce5-1c53-4a60-bb75-cb662f14a078/75182312-a598-4b64-9907-f166ceedbd76-master.m3u8https://video.igem.org/videos/embed/9yUEhD2jcRyua7gYdMNucb18000162022-10-28T14:25:40.590ZYES2022 Judging SessionsNOhttps://video.igem.org/w/d2k8WwqMPPjoUmzbkX6S3thttps://video.igem.org/lazy-static/thumbnails/f1c42ab8-85b0-4882-a68a-76c4e3333239.jpgGastonDay-Shangde: Judging Session (2022)[Wiki](https://2022.igem.wiki/gastonday-shangde)https://static.igem.org/peertube/streaming-playlists/hls/615d3383-4d1a-4646-a0d4-0b5ac044eaaf/3099d31d-d279-4fec-a2bc-e47ba3491c61-master.m3u8https://video.igem.org/videos/embed/d2k8WwqMPPjoUmzbkX6S3t1800082022-10-28T14:47:08.243ZYES2022 Judging SessionsNOhttps://video.igem.org/w/tywvzAJJAMEehxEprLWsmchttps://video.igem.org/lazy-static/thumbnails/1b3a131c-b70c-4e90-a915-b6d5ab568e73.jpgHS_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/hs-china)https://static.igem.org/peertube/streaming-playlists/hls/df3158ce-f212-4c3b-b726-09331e5fcbcb/e13d2be8-6ddd-48af-95f0-7c54e6b450b8-master.m3u8https://video.igem.org/videos/embed/tywvzAJJAMEehxEprLWsmc1800082022-10-28T14:58:55.302ZYES2022 Judging SessionsNOhttps://video.igem.org/w/vcVMkJcZS9aa4NzcFUtLRLhttps://video.igem.org/lazy-static/thumbnails/213114c3-5fdc-4450-a64c-ade75bc85f9c.jpgLethbridge: Judging Session (2022)[Wiki](https://2022.igem.wiki/lethbridge)https://static.igem.org/peertube/streaming-playlists/hls/ec8358c6-53ba-4406-8618-ecab08f5a98e/e3df1116-7bc4-44f8-8d8c-1dbe18a13dcc-master.m3u8https://video.igem.org/videos/embed/vcVMkJcZS9aa4NzcFUtLRL18000102022-10-28T15:17:09.709ZYES2022 Judging SessionsNOhttps://video.igem.org/w/eGWaojbaW16TE8ZgdMzAkohttps://video.igem.org/lazy-static/thumbnails/cb2442ed-40c5-4110-8961-fb703f178977.jpgHK_SSC: Judging Session (2022)[Wiki](https://2022.igem.wiki/hk-ssc)https://static.igem.org/peertube/streaming-playlists/hls/6efdee89-0744-4e58-8879-faea88541ce4/255bb0e3-84fd-481b-a7bc-308f142a4b8a-master.m3u8https://video.igem.org/videos/embed/eGWaojbaW16TE8ZgdMzAko1800082022-10-28T15:07:10.482ZYES2022 Judging SessionsNOhttps://video.igem.org/w/m1Pp6twVrZYET6ChyTrJ6Rhttps://video.igem.org/lazy-static/thumbnails/d97cda1a-78ea-433c-941e-772ac94a853a.jpgMichiganState: Judging Session (2022)[Wiki](https://2022.igem.wiki/michiganstate)https://static.igem.org/peertube/streaming-playlists/hls/a213fbbd-d841-4cdc-8a85-f17966f31e53/0f5c6018-0b35-4b9f-92f8-3f373a3ac1bc-master.m3u8https://video.igem.org/videos/embed/m1Pp6twVrZYET6ChyTrJ6R1800072022-10-28T15:26:37.682ZYES2022 Judging SessionsNOhttps://video.igem.org/w/stB2tbZH4cV7zfsL2iApn8https://video.igem.org/lazy-static/thumbnails/017c935e-88fc-46e7-9877-9a85a570ab73.jpgPuiChing_Macau: Judging Session (2022)[Wiki](https://2022.igem.wiki/puiching-macau)https://static.igem.org/peertube/streaming-playlists/hls/d66845a6-8b08-4bf6-ac34-a71de60bfc05/eeb09143-8416-4e91-b6b3-2eba93c7000a-master.m3u8https://video.igem.org/videos/embed/stB2tbZH4cV7zfsL2iApn818000732022-10-28T15:46:46.255ZYES2022 Judging SessionsNOhttps://video.igem.org/w/2rQSqTeN6MDpnDhPW396wahttps://video.igem.org/lazy-static/thumbnails/669d63c9-9854-4552-8f10-221c47761bed.jpgKCL_UK: Judging Session (2022)[Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/0bb4d98b-bc39-4bb7-9c45-6e434a2f2c69/2a75722a-4ffe-406b-9963-88dc89f253d0-master.m3u8https://video.igem.org/videos/embed/2rQSqTeN6MDpnDhPW396wa18000182022-10-28T15:36:55.648ZYES2022 Judging SessionsNOhttps://video.igem.org/w/r694iC4pApPcp7jvFzgddshttps://video.igem.org/lazy-static/thumbnails/c34d0815-2402-4c6e-a95a-0eb73f74fae8.jpgULaval: Judging Session (2022)[Wiki](https://2022.igem.wiki/ulaval)https://static.igem.org/peertube/streaming-playlists/hls/cb2c268f-a3ad-4580-9104-ee333ba5258a/242dbcd1-a3b6-4682-8c89-8de60bc1a8af-master.m3u8https://video.igem.org/videos/embed/r694iC4pApPcp7jvFzgdds1800052022-10-28T15:56:05.959ZYES2022 Judging SessionsNOhttps://video.igem.org/w/bpCVfVpuRx3SfDaZRZyyWJhttps://video.igem.org/lazy-static/thumbnails/9c387735-75f3-43ad-bd80-562488bca33b.jpgDUT_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/dut-china)https://static.igem.org/peertube/streaming-playlists/hls/54483eb6-c95d-4b4d-8b77-2eb6eea19dd6/aa57296a-7a4a-409d-ae71-ddffc14ac7fa-master.m3u8https://video.igem.org/videos/embed/bpCVfVpuRx3SfDaZRZyyWJ18000302022-10-28T16:06:05.977ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4S3NKjhctgNftMgEHefax8https://video.igem.org/lazy-static/thumbnails/15a78b0f-280e-405e-ab1a-bea9928c4d69.jpgMichigan: Judging Session (2022)[Wiki](https://2022.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/1f48556f-1608-4af9-a00b-b59fe66c19f1/0799b1a7-ab5b-41e0-8304-eacad77da6db-master.m3u8https://video.igem.org/videos/embed/4S3NKjhctgNftMgEHefax81800032022-10-28T16:15:55.818ZYES2022 Judging SessionsNOhttps://video.igem.org/w/1zVhXpwAMrgWUnenQLNpXqhttps://video.igem.org/lazy-static/thumbnails/5a4cb58b-b5ec-467a-af00-ba34862700cf.jpgTecCCM: Judging Session (2022)[Wiki](https://2022.igem.wiki/tecccm)https://static.igem.org/peertube/streaming-playlists/hls/04bc6310-e6e7-4be9-ae94-c269f2e9e37a/272800dc-d0f9-4e92-a407-bf379e965032-master.m3u8https://video.igem.org/videos/embed/1zVhXpwAMrgWUnenQLNpXq18000112022-10-28T16:45:46.465ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ayaN2a2SKdC3boVGV293ndhttps://video.igem.org/lazy-static/thumbnails/43d20b61-9b2d-48df-ac2b-7e006999ec5d.jpgBS_United_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/bs-united-china)https://static.igem.org/peertube/streaming-playlists/hls/4d601581-6bc5-4d31-a886-7d1677b82006/b4394a9a-6cb9-42b2-b9ca-6d00ea346c36-master.m3u8https://video.igem.org/videos/embed/ayaN2a2SKdC3boVGV293nd18000832022-10-28T16:25:50.050ZYES2022 Judging SessionsNOhttps://video.igem.org/w/tcxonqYywV1sVX4tovshQThttps://video.igem.org/lazy-static/thumbnails/eb6b97b2-9611-44ac-8c6d-253c6efc6bc9.jpgEdinburgh-UHAS_Ghana: Judging Session (2022)[Wiki](https://2022.igem.wiki/edinburgh-uhas-ghana)https://static.igem.org/peertube/streaming-playlists/hls/dc434474-82b5-42ee-9416-337d20ae1533/b46c105e-a242-4174-99e0-175f6db0ee8c-master.m3u8https://video.igem.org/videos/embed/tcxonqYywV1sVX4tovshQT18000292022-10-28T16:35:41.762ZYES2022 Judging SessionsNOhttps://video.igem.org/w/uzh9UNoSVct5zExA2k9Mhihttps://video.igem.org/lazy-static/thumbnails/b2f0bc3a-efaa-460b-845d-f86f138ac385.jpgHeidelberg: Judging Session (2022)[Wiki](https://2022.igem.wiki/heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/e76561c5-3bd1-4c14-b711-3c9d8f3ca415/5dac7620-ae04-4f71-b908-fc940321e924-master.m3u8https://video.igem.org/videos/embed/uzh9UNoSVct5zExA2k9Mhi18000132022-10-28T16:55:40.062ZYES2022 Judging SessionsNOhttps://video.igem.org/w/wzAqNjfNj64RLtKPvssNivhttps://video.igem.org/lazy-static/thumbnails/5b2ed6a0-952d-49bd-9c38-d36d974230ce.jpgSHBS-BANZ: Judging Session (2022)[Wiki](https://2022.igem.wiki/shbs-banz)https://static.igem.org/peertube/streaming-playlists/hls/f7a2ebc3-3dcb-4bb3-8296-a2f2eaccf77f/9d9edf8a-14ef-42db-8adc-a5a5522ffe1c-master.m3u8https://video.igem.org/videos/embed/wzAqNjfNj64RLtKPvssNiv1800002022-10-28T17:05:37.766ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jE3TjpjbNvouPf68Qk3m3chttps://video.igem.org/lazy-static/thumbnails/ee9a8a87-9e2c-454d-8aed-f6e09f710f89.jpgTianjin: Judging Session (2022)[Wiki](https://2022.igem.wiki/tianjin)https://static.igem.org/peertube/streaming-playlists/hls/97148975-7d96-43b9-b908-dd5ccd28e60f/5533ca65-75ec-474b-af78-af4fdd10be80-master.m3u8https://video.igem.org/videos/embed/jE3TjpjbNvouPf68Qk3m3c1800042022-10-28T17:15:37.964ZYES2022 Judging SessionsNOhttps://video.igem.org/w/s6kUZN7mL1b3KVHkDTvGH6https://video.igem.org/lazy-static/thumbnails/03013e83-9bd8-483a-9343-cef6a0d1737a.jpgSHBS-BANZ: Judging Session (2022)[Wiki](https://2022.igem.wiki/shbs-banz)https://static.igem.org/peertube/streaming-playlists/hls/d34c98a6-0423-4d27-94ab-8db6eb77f807/fe614493-189c-471b-a48e-84d96a4bc323-master.m3u8https://video.igem.org/videos/embed/s6kUZN7mL1b3KVHkDTvGH61800042022-10-28T17:25:26.930ZYES2022 Judging SessionsNOhttps://video.igem.org/w/47Kf2GPcjV9cbePAeuoyRLhttps://video.igem.org/lazy-static/thumbnails/9551acc2-43fa-49b8-9bc0-a347d225d858.jpgMichigan: Judging Session (2022)[Wiki](https://2022.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/193c8700-fe60-444f-a507-1f0a29c44516/85878212-3523-488b-8cd0-d296ec0b5134-master.m3u8https://video.igem.org/videos/embed/47Kf2GPcjV9cbePAeuoyRL1800052022-10-28T17:35:26.907ZYES2022 Judging SessionsNOhttps://video.igem.org/w/aGuHySHBFWL3sShsGbNnZthttps://video.igem.org/lazy-static/thumbnails/fc06f477-710b-4047-9c71-bb51b55443e4.jpgCornell: Judging Session (2022)[Wiki](https://2022.igem.wiki/cornell)https://static.igem.org/peertube/streaming-playlists/hls/4e89b22e-19e9-4a4f-bdba-77b69221c049/bcc4568e-c96d-4dbc-81de-c304647d3509-master.m3u8https://video.igem.org/videos/embed/aGuHySHBFWL3sShsGbNnZt18000202022-10-28T17:55:21.668ZYES2022 Judging SessionsNOhttps://video.igem.org/w/iEiUbhhSAyTP5N6Z3DowYuhttps://video.igem.org/lazy-static/thumbnails/b680a673-bf97-44d6-8ce1-7bfd0a5b3a76.jpgIvyMaker-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/ivymaker-china)https://static.igem.org/peertube/streaming-playlists/hls/8f04a6c9-09c8-4a79-ad20-d8615d2d07c4/27417e9a-0323-495e-aafb-41dcf7aa8bc1-master.m3u8https://video.igem.org/videos/embed/iEiUbhhSAyTP5N6Z3DowYu1800092022-10-28T17:45:25.180ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5YcruL39R1t9ZcG43pYoXNhttps://video.igem.org/lazy-static/thumbnails/86168727-b191-4878-b1f8-c7cc61b9f951.jpgNanjing-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/nanjing-china)https://static.igem.org/peertube/streaming-playlists/hls/283d4172-8793-4cb8-8a25-793e1ff801ec/c3146f1a-5cf1-40be-ba62-157de603ed8b-master.m3u8https://video.igem.org/videos/embed/5YcruL39R1t9ZcG43pYoXN18000492022-10-28T18:05:15.787ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6UcRso3ksVW8k9bYXJv5BShttps://video.igem.org/lazy-static/thumbnails/f3023358-6545-4cfa-be1b-0269df8f69d4.jpgJilin_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/jilin-china)https://static.igem.org/peertube/streaming-playlists/hls/2fc7ac7e-9dcc-4da1-ba77-a79b69cad638/2b66ed76-4889-46d7-b483-649837b1be98-master.m3u8https://video.igem.org/videos/embed/6UcRso3ksVW8k9bYXJv5BS18000342022-10-28T18:15:23.232ZYES2022 Judging SessionsNOhttps://video.igem.org/w/8VS6aXw9FuGDaD2BBf6141https://video.igem.org/lazy-static/thumbnails/854b054d-da5c-4e3c-a5bb-44a663548bae.jpgRochester: Judging Session (2022)[Wiki](https://2022.igem.wiki/rochester)https://static.igem.org/peertube/streaming-playlists/hls/4035424c-3c39-4a94-a5c2-7209a34a3776/313ffa53-990c-4dfd-8a44-1a1ec6f663cb-master.m3u8https://video.igem.org/videos/embed/8VS6aXw9FuGDaD2BBf614118000302022-10-28T18:25:01.284ZYES2022 Judging SessionsNOhttps://video.igem.org/w/opRuqd1sX1QMkfmbUK4cNWhttps://video.igem.org/lazy-static/thumbnails/1fa1f098-98f4-436d-b5e3-1c4dc3e24834.jpgUSP-EEL-Brazil: Judging Session (2022)[Wiki](https://2022.igem.wiki/usp-eel-brazil)https://static.igem.org/peertube/streaming-playlists/hls/b57da810-3f01-455e-bdc6-c87d86056056/af193588-8d4a-4d98-9b45-aceb61417cc0-master.m3u8https://video.igem.org/videos/embed/opRuqd1sX1QMkfmbUK4cNW1800032022-10-28T18:34:29.614ZYES2022 Judging SessionsNOhttps://video.igem.org/w/n9UsgziBye3eEHjvmC3tsShttps://video.igem.org/lazy-static/thumbnails/707fbb3e-b0ba-4bd2-b425-f3c5fc221206.jpgZJUintl-China: Judging Session (2022)[Wiki](https://2022.igem.wiki/zjuintl-china)https://static.igem.org/peertube/streaming-playlists/hls/ab4e2ff1-03c2-4512-947e-460dcf9dcf32/321c7f7b-b05a-439d-941b-88c4dfcfaa64-master.m3u8https://video.igem.org/videos/embed/n9UsgziBye3eEHjvmC3tsS18000162022-10-28T18:43:46.286ZYES2022 Judging SessionsNOhttps://video.igem.org/w/k8GK4aCKjpmd3Daq46SX52https://video.igem.org/lazy-static/thumbnails/e6be8cbc-cf11-41a5-b614-713551974a66.jpgUSP-EEL-Brazil: Judging Session (2022)[Wiki](https://2022.igem.wiki/usp-eel-brazil)https://static.igem.org/peertube/streaming-playlists/hls/9af0f303-cfb2-4ac5-b122-089411f4bf25/8fa7ee67-4155-41e2-84ac-399846464f67-master.m3u8https://video.igem.org/videos/embed/k8GK4aCKjpmd3Daq46SX521800032022-10-28T18:52:41.741ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5N1w37X2VPZbbaiJwoHeRLhttps://video.igem.org/lazy-static/thumbnails/ba9da7bb-b1e9-4b96-a121-6c4394a58d57.jpgIonis_Paris: Judging Session (2022)[Wiki](https://2022.igem.wiki/ionis-paris)https://static.igem.org/peertube/streaming-playlists/hls/26d11653-5e8b-4ceb-a406-0e4edd3814a2/ead8fa92-1f2a-4861-a1a2-b3856bbcea2d-master.m3u8https://video.igem.org/videos/embed/5N1w37X2VPZbbaiJwoHeRL18000622022-10-28T19:12:13.966ZYES2022 Judging SessionsNOhttps://video.igem.org/w/t9k569Qer2dY8MLjnaGVXQhttps://video.igem.org/lazy-static/thumbnails/48190bf1-f9e2-4163-9b4a-3b2aa7687bf6.jpgFDR-HB_Peru: Judging Session (2022)[Wiki](https://2022.igem.wiki/fdr-hb-peru)https://static.igem.org/peertube/streaming-playlists/hls/dbd07253-cbd0-4dc2-bffc-43f594f1a88a/a35a2fa5-4000-46df-ae71-b93a8e80a53e-master.m3u8https://video.igem.org/videos/embed/t9k569Qer2dY8MLjnaGVXQ18000202022-10-28T19:03:09.321ZYES2022 Judging SessionsNOhttps://video.igem.org/w/1mWa2AVhzDHCyApo3V5Ydchttps://video.igem.org/lazy-static/thumbnails/5a1ded66-f517-4fc8-a6cf-5b9b36aedd7a.jpgASU: Judging Session (2022)[Wiki](https://2022.igem.wiki/asu)https://static.igem.org/peertube/streaming-playlists/hls/02ec4000-4815-4d1e-9524-4a7410682fd3/5dcc19ce-092f-4e8e-96c8-106a72abce53-master.m3u8https://video.igem.org/videos/embed/1mWa2AVhzDHCyApo3V5Ydc18000162022-10-28T19:22:04.119ZYES2022 Judging SessionsNOhttps://video.igem.org/w/9v2LAWgWB57g2Ai7iTR59hhttps://video.igem.org/lazy-static/thumbnails/324c8fe0-c1c2-417d-9476-b2f987169290.jpgRS_United_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/rs-united-china)https://static.igem.org/peertube/streaming-playlists/hls/44d6c4cf-fac2-48c1-b39a-52188430e1e8/7a2408bf-fbb3-4706-84a4-5907a1418609-master.m3u8https://video.igem.org/videos/embed/9v2LAWgWB57g2Ai7iTR59h18000172022-10-28T19:41:24.885ZYES2022 Judging SessionsNOhttps://video.igem.org/w/dhTUjkVuoY2vnuozJm4NMkhttps://video.igem.org/lazy-static/thumbnails/789088ab-d345-4130-8b5f-3a14d915adec.jpgHarvard: Judging Session (2022)[Wiki](https://2022.igem.wiki/harvard)https://static.igem.org/peertube/streaming-playlists/hls/63898ccb-ed51-4a82-b42a-3289b02755f5/630c8966-fad9-47e7-afda-258d622ff2e9-master.m3u8https://video.igem.org/videos/embed/dhTUjkVuoY2vnuozJm4NMk18000202022-10-28T19:51:04.709ZYES2022 Judging SessionsNOhttps://video.igem.org/w/pJQGVfVMdPPzfqAkQ658Bkhttps://video.igem.org/lazy-static/thumbnails/933a4e4b-fa05-44dd-87a6-a810f2c9f202.jpgUFlorida: Judging Session (2022)[Wiki](https://2022.igem.wiki/uflorida)https://static.igem.org/peertube/streaming-playlists/hls/c03d717e-e39f-4a6b-b718-24416894a7ad/fc971e6d-340a-4e6b-8a46-adc2e85045e4-master.m3u8https://video.igem.org/videos/embed/pJQGVfVMdPPzfqAkQ658Bk1800052022-10-28T19:32:03.064ZYES2022 Judging SessionsNOhttps://video.igem.org/w/cd8LH3mM4tnLJrr1JAQC81https://video.igem.org/lazy-static/thumbnails/ad9e3d00-8b8f-4a02-8b7b-0f55d0ce1b65.jpgNJTech_China: Judging Session (2022)[Wiki](https://2022.igem.wiki/njtech-china)https://static.igem.org/peertube/streaming-playlists/hls/5ac63d4b-d35d-4346-b6ef-d9d173c23606/eb6b7711-9a24-4310-a04a-1e2948deee45-master.m3u8https://video.igem.org/videos/embed/cd8LH3mM4tnLJrr1JAQC8118000212022-10-28T20:10:21.257ZYES2022 Judging SessionsNOhttps://video.igem.org/w/iWxQp1WhtfmQemcEkiQ3dahttps://video.igem.org/lazy-static/thumbnails/fa9383f9-4e57-4c37-8e8f-454bb6c1931a.jpgTec-Chihuahua: Judging Session (2022)[Wiki](https://2022.igem.wiki/tec-chihuahua)https://static.igem.org/peertube/streaming-playlists/hls/914923b3-dc0b-4ab5-92bc-c33ea9ece479/65af279b-4787-44d6-bd46-c3c054ab5f14-master.m3u8https://video.igem.org/videos/embed/iWxQp1WhtfmQemcEkiQ3da18000262022-10-28T20:40:30.882ZYES2022 Judging SessionsNOhttps://video.igem.org/w/qpMWrFDPSgr1wvLR81TczGhttps://video.igem.org/lazy-static/thumbnails/5733d1a9-217f-4535-bfeb-0cbb3a32ab51.jpgUManitoba: Judging Session (2022)[Wiki](https://2022.igem.wiki/umanitoba)https://static.igem.org/peertube/streaming-playlists/hls/c5adbec9-6653-46d7-b1bc-636f1b5d66c6/64126eda-150a-4b3e-8430-9534cac18897-master.m3u8https://video.igem.org/videos/embed/qpMWrFDPSgr1wvLR81TczG18000112022-10-28T20:57:30.509ZYES2022 Judging SessionsNOhttps://video.igem.org/w/5RKPALEQGgziZVywtnwwD4https://video.igem.org/lazy-static/thumbnails/3ed1c80c-7391-4855-bde3-bd5855c2601d.jpgYale: Judging Session (2022)[Wiki](https://2022.igem.wiki/yale)https://static.igem.org/peertube/streaming-playlists/hls/2757013c-255c-472f-9467-778dce0003fd/bc8714e8-8f42-42ce-a5b3-7c069b3dcef8-master.m3u8https://video.igem.org/videos/embed/5RKPALEQGgziZVywtnwwD418000362022-10-28T21:15:33.863ZYES2022 Judging SessionsNOhttps://video.igem.org/w/jcT61AguML1sWqUWKbB6pXhttps://video.igem.org/lazy-static/thumbnails/038cfda4-2a0c-4ad8-a657-203af4636670.jpgUnicamp_Brazil: Judging Session (2022)[Wiki](https://2022.igem.wiki/unicamp-brazil)https://static.igem.org/peertube/streaming-playlists/hls/936d2913-5bfe-431b-a5dc-7c010ec5ce99/340ac581-c845-4281-98fd-a6c8865f04fb-master.m3u8https://video.igem.org/videos/embed/jcT61AguML1sWqUWKbB6pX18000212022-10-28T21:33:44.190ZYES2022 Judging SessionsNOhttps://video.igem.org/w/axWRi1PxnfikAz1roW9fEQhttps://video.igem.org/lazy-static/thumbnails/7d3d4a2a-bedc-4c04-99a8-11c850a2bf1a.jpgUOregon: Judging Session (2022)[Wiki](https://2022.igem.wiki/uoregon)https://static.igem.org/peertube/streaming-playlists/hls/4d581b74-ea46-411e-9684-232187d17464/839eaf32-ae37-4623-b614-943c69670f13-master.m3u8https://video.igem.org/videos/embed/axWRi1PxnfikAz1roW9fEQ1800002022-10-28T21:51:00.946ZYES2022 Judging SessionsNOhttps://video.igem.org/w/qefcuFBpuxbtUEaeoiaYyHhttps://video.igem.org/lazy-static/thumbnails/d1f06350-fce2-435f-bb52-3107605eeb50.jpgLambert_GA: Judging Session (2022)[Wiki](https://2022.igem.wiki/lambert-ga)https://static.igem.org/peertube/streaming-playlists/hls/c434bf2d-a1ef-42bf-b99f-c6264c8af641/84c6ed3f-6205-48f6-a6ad-d1ce2145435d-master.m3u8https://video.igem.org/videos/embed/qefcuFBpuxbtUEaeoiaYyH180002552022-10-28T22:10:26.905ZYES2022 Judging SessionsNOhttps://video.igem.org/w/iG8RD3631EUqGPcFdcEVpBhttps://video.igem.org/lazy-static/thumbnails/2320cb90-e312-4f3b-97a1-56a3f11dbc29.jpgNDSU: Judging Session (2022)[Wiki](https://2022.igem.wiki/ndsu)https://static.igem.org/peertube/streaming-playlists/hls/8f45f308-b20e-409e-bea0-6501ae50792d/c5443a34-d872-46b4-a942-f5adf65872af-master.m3u8https://video.igem.org/videos/embed/iG8RD3631EUqGPcFdcEVpB1800032022-10-28T23:30:59.645ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4UE6riGfKk3ZTWUWubFiSEhttps://video.igem.org/lazy-static/thumbnails/ac619d48-b19c-451f-bfe3-7a4d922bb91d.jpgCalgary: Judging Session (2022)[Wiki](https://2022.igem.wiki/calgary)https://static.igem.org/peertube/streaming-playlists/hls/1fa5916f-f723-4d93-ba3e-1d6b1f5f0296/5ff206ad-777d-4fda-9c5e-6a11882aba99-master.m3u8https://video.igem.org/videos/embed/4UE6riGfKk3ZTWUWubFiSE18000232022-10-29T01:02:25.682ZYES2022 Judging SessionsNOhttps://video.igem.org/w/n66L5y6AnAvSt9Mqq2DEM9https://video.igem.org/lazy-static/thumbnails/25013409-b756-41c7-b228-562df1d32af5.jpgMiamiU: Judging Session (2022)[Wiki](https://2022.igem.wiki/miamiu)https://static.igem.org/peertube/streaming-playlists/hls/aac62e30-01ce-409e-9a59-386f9a9e1dea/569c3be2-9f89-4010-8356-429618a46025-master.m3u8https://video.igem.org/videos/embed/n66L5y6AnAvSt9Mqq2DEM91800042022-10-29T01:20:47.002ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6U49gxzVxFmSx3bZmmHF3qhttps://video.igem.org/lazy-static/thumbnails/f0bfa042-d215-4f26-ab1f-bf87f73a90a9.jpgMIT: Judging Session (2022)[Wiki](https://2022.igem.wiki/mit)https://static.igem.org/peertube/streaming-playlists/hls/2fc24e56-6ea7-4305-b271-b5b60aacb470/743e062e-576b-4582-912d-dfd8f657d254-master.m3u8https://video.igem.org/videos/embed/6U49gxzVxFmSx3bZmmHF3q18000192022-10-29T01:38:30.699ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4bo3Jd9W5METGgFgHFTSUBhttps://video.igem.org/lazy-static/thumbnails/00864227-6a13-4fe7-94d3-bb86000946ab.jpgPortland: Judging Session (2022)[Wiki](https://2022.igem.wiki/portland)https://static.igem.org/peertube/streaming-playlists/hls/19be70ce-1d91-4780-85a6-7277b6a0893b/09f59682-2d76-432e-b664-455e7dd94af4-master.m3u8https://video.igem.org/videos/embed/4bo3Jd9W5METGgFgHFTSUB1800032022-10-29T01:56:10.783ZYES2022 Judging SessionsNOhttps://video.igem.org/w/rSoVMdRRybhSR8gW8fDX4Uhttps://video.igem.org/lazy-static/thumbnails/8daecb01-c70d-41d1-88e3-b7f668f915df.jpgFSU: Judging Session (2022)[Wiki](https://2022.igem.wiki/fsu)https://static.igem.org/peertube/streaming-playlists/hls/d17dc8cf-2716-4d9e-b966-eb6009fea1a6/05ba057d-40f5-41eb-99b4-9366c56f74b9-master.m3u8https://video.igem.org/videos/embed/rSoVMdRRybhSR8gW8fDX4U18000202022-10-29T02:32:59.106ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ki56cR74t6MtpNmEu4bF7Bhttps://video.igem.org/lazy-static/thumbnails/e5d011f4-1311-484d-bbbf-c9a5308e0d03.jpgEast_Coast_BioCrew: Judging Session (2022)[Wiki](https://2022.igem.wiki/east-coast-biocrew)https://static.igem.org/peertube/streaming-playlists/hls/9c3fcc8c-373c-4de9-b475-fe1cb356d3bb/2357bb94-aa35-4662-9710-2a7ce0a8981c-master.m3u8https://video.igem.org/videos/embed/ki56cR74t6MtpNmEu4bF7B18000222022-10-29T02:15:29.721ZYES2022 Judging SessionsNOhttps://video.igem.org/w/egbJuwpSzpY5JA5eyYXdGShttps://video.igem.org/lazy-static/thumbnails/16dd0f0b-3b6d-478b-b5bb-c4c55298d573.jpgUPenn: Judging Session (2022)[Wiki](https://2022.igem.wiki/upenn)https://static.igem.org/peertube/streaming-playlists/hls/6b6592c6-6cd8-4164-995d-af83ddbc564a/619c1171-5da2-45bb-90fa-862a45a2ef6a-master.m3u8https://video.igem.org/videos/embed/egbJuwpSzpY5JA5eyYXdGS18000292022-10-29T02:50:43.762ZYES2022 Judging SessionsNOhttps://video.igem.org/w/ozi7eWEv5i36CEdfuJ78tkhttps://video.igem.org/lazy-static/thumbnails/b4302631-6cd6-47e1-9e77-ebf5be591f9d.jpgHUS_United: Judging Session (2022)[Wiki](https://2022.igem.wiki/hus-united)https://static.igem.org/peertube/streaming-playlists/hls/b6cf234a-b15c-412d-99bb-eeb74706f8bd/87784d3a-8806-4369-9458-b8c22b0ea491-master.m3u8https://video.igem.org/videos/embed/ozi7eWEv5i36CEdfuJ78tk18000342022-10-29T03:17:31.387ZYES2022 Judging SessionsNOhttps://video.igem.org/w/8TjZjBdsFkxEPPeVo9gWNphttps://video.igem.org/lazy-static/thumbnails/b3ccb2a9-15db-4a6e-8ad2-9ac8d15529d7.jpgNYC_Empire_State: Judging Session (2022)[Wiki](https://2022.igem.wiki/nyc-empire-state)https://static.igem.org/peertube/streaming-playlists/hls/3fda9ad6-c019-491b-b173-a160f8854573/3a6dd6a6-b886-4f92-ae25-811278128b97-master.m3u8https://video.igem.org/videos/embed/8TjZjBdsFkxEPPeVo9gWNp18000562022-10-29T03:35:44.255ZYES2022 Judging SessionsNOhttps://video.igem.org/w/6kCTiKcDpJvrvPjJwgCLw5https://video.igem.org/lazy-static/thumbnails/e86ef2ee-4a55-4bf5-aceb-80d8b76ed21a.jpgStony_Brook: Judging Session (2022)[Wiki](https://2022.igem.wiki/stony-brook)https://static.igem.org/peertube/streaming-playlists/hls/2b3b8e4d-0df6-458d-8b6c-563d6ac7d3d0/92eec940-5218-4c6a-aeef-96bfcef6e498-master.m3u8https://video.igem.org/videos/embed/6kCTiKcDpJvrvPjJwgCLw518000212022-10-29T04:11:02.505ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4nDuWCnuJHQ1hczMTwjXn7https://video.igem.org/lazy-static/thumbnails/79c2cba2-4f67-4b23-9fb2-0f33ff19986b.jpgWaterloo: Judging Session (2022)[Wiki](https://2022.igem.wiki/waterloo)https://static.igem.org/peertube/streaming-playlists/hls/1b51250c-e7e8-419f-bc7f-b216118873d4/a70cf0d0-fb07-437a-9178-a3faf3ea8ab3-master.m3u8https://video.igem.org/videos/embed/4nDuWCnuJHQ1hczMTwjXn718000272022-10-29T03:53:33.218ZYES2022 Judging SessionsNOhttps://video.igem.org/w/m9hXNUNpewsoCD6pU3kg31https://video.igem.org/lazy-static/thumbnails/697889d0-69d6-434d-97a1-96984c7e65e6.jpgStanford: Judging Session (2022)[Wiki](https://2022.igem.wiki/stanford)https://static.igem.org/peertube/streaming-playlists/hls/a31f2d3c-30d0-436b-ba04-537ef4f2ae68/62192fe0-b588-4b24-a89b-6cc3af4f8a95-master.m3u8https://video.igem.org/videos/embed/m9hXNUNpewsoCD6pU3kg31180001002022-10-29T04:29:23.118ZYES2022 Judging SessionsNOhttps://video.igem.org/w/4xqHmDh7qXLkC8nmPcKQS1https://video.igem.org/lazy-static/thumbnails/8e91440d-227e-4c30-8d26-f8c00cbef2bf.jpgiGemTecQro (2022) - Project PromotioniGemTecQro (2022) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/1caeb3ea-8b8e-4634-99ec-804116e7535c/4b4515f8-b39a-4371-b196-a7d2d5d374f9-master.m3u8https://video.igem.org/videos/embed/4xqHmDh7qXLkC8nmPcKQS11200142022-11-04T21:17:44.410ZYESiGEM Design LeagueNOhttps://video.igem.org/w/fhh7brZ8iXpgtDbQSM5gkahttps://video.igem.org/lazy-static/thumbnails/9cd33086-76fd-4326-a7b4-141f21e674d5.jpgBioB-HIVE (2022) - Team PresentationBioB-HIVE (2022) - Team 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Jamboree.https://static.igem.org/peertube/streaming-playlists/hls/4dc7e4ae-4bec-4b81-b02f-84855bae5fb0/e992e3c4-737f-45ab-8ec2-854e69937d33-master.m3u8https://video.igem.org/videos/embed/aB5eXy6x1bkJBdibnfUD7114720472022-11-07T13:43:07.103ZYESiGEM CommunityNOhttps://video.igem.org/w/jSptVZzn5KNmfLsruWWMEbhttps://video.igem.org/lazy-static/thumbnails/dd96a065-30eb-400b-8b8e-c0455684c39c.jpgiGEM Biotech EC (2022) - Team PresentationiGEM Biotech EC (2022) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/98ce27c8-f0d1-4bd8-b490-13576267d08a/c8967552-587f-4db8-8301-deb586d492c3-master.m3u8https://video.igem.org/videos/embed/jSptVZzn5KNmfLsruWWMEb11370132022-11-07T19:12:01.144ZYESiGEM Design LeagueNOhttps://video.igem.org/w/91nxrd5xfA3MmAvAY6muwkhttps://video.igem.org/lazy-static/thumbnails/f8f86c30-a5ff-4e2d-890c-b68944a09e3b.jpg UNMSM (2022) - Team Presentation UNMSM (2022) - Team 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Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/149c108b-b61e-4d93-9c8f-edc6da524edd/6d9a1a7a-3e91-4dcd-807c-ac30f5ed770f-master.m3u8https://video.igem.org/videos/embed/3xBg9r67YiQK3DvNU6A6FT1198082022-11-08T14:25:11.745ZYESiGEM Design LeagueNOhttps://video.igem.org/w/wBpgCTJrMwGKoPQJ8fiZqWhttps://video.igem.org/lazy-static/thumbnails/d90d2a9c-bc87-4c29-bc3e-16edafa17149.jpgOllin Synbio IPN (2022) - Team PresentationOllin Synbio IPN (2022) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/f7e3883a-7c35-4296-be9d-70357219d312/038b310b-4b8c-4c44-90dd-71c8d6da0859-master.m3u8https://video.igem.org/videos/embed/wBpgCTJrMwGKoPQJ8fiZqW9610102022-11-08T14:27:46.807ZYESiGEM Design LeagueNOhttps://video.igem.org/w/pmgvtSfXKgyuwUfaPAEzRhhttps://video.igem.org/lazy-static/thumbnails/d7f863b7-911a-459b-ab65-c5c5622ffe83.jpgOSIRIS-RIO-UFRJ (2022) - Team PresentationOSIRIS-RIO-UFRJ (2022) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/bd169f34-c8ef-4fd9-858c-6cc195e9de7e/f1a452b9-73e1-4c55-803a-554177b0a7c1-master.m3u8https://video.igem.org/videos/embed/pmgvtSfXKgyuwUfaPAEzRh11060152022-11-08T14:31:43.935ZYESiGEM Design LeagueNOhttps://video.igem.org/w/v43x9R5CCMzrTc9uoYXWNbhttps://video.igem.org/lazy-static/thumbnails/4d5a301d-d779-4c43-87ca-13c6730af591.jpg2022 TU-Eindhoven - Undergrad Finalist Presentation2022 TU-Eindhoven - Undergrad Finalist Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/eb45d0e5-6d3d-41a1-a6d8-2b80d0013de6/66b983e0-d64c-49c9-9ba4-55eb86061383-master.m3u8https://video.igem.org/videos/embed/v43x9R5CCMzrTc9uoYXWNb930012512022-11-10T20:00:52.559ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/j6KHQjQBit6ryn2NTaEi3Shttps://video.igem.org/lazy-static/thumbnails/e68f86a6-92c6-4167-81a2-8842c426c9ef.jpg2022 HKUST - Undergrad Finalist Presentation2022 HKUST - Undergrad Finalist Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/929228ae-a31f-48a6-a141-bc9e147ba16a/696b7acc-b38e-471b-9545-dbccf5b4ea41-master.m3u8https://video.igem.org/videos/embed/j6KHQjQBit6ryn2NTaEi3S94004272022-11-10T20:16:10.479ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/q4gxyoLjWaAs4LRzAQmYZEhttps://video.igem.org/lazy-static/thumbnails/25cc46d1-95b6-47a7-86af-6ff586a8edfb.jpg2022 Lambert_GA - High School Finalist Presentation2022 Lambert_GA - High School Finalist Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/c2d02377-f3b3-4e25-95f3-46a253467d10/86768166-5279-442f-8951-a8a0d673957d-master.m3u8https://video.igem.org/videos/embed/q4gxyoLjWaAs4LRzAQmYZE88308552022-11-10T20:25:46.151ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/i1BePipQGc926evJoMwbcFhttps://video.igem.org/lazy-static/thumbnails/3b63da10-7f26-4372-8cff-b9aec92d7b7d.jpg2022 INSA_Lyon1 - Undergrad Finalist Presentation2022 INSA_Lyon1 - Undergrad Finalist Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/89c112d2-f2ca-47d9-b604-1e776cc1184d/04fd388c-a163-49ab-8bf2-257430a4baa6-master.m3u8https://video.igem.org/videos/embed/i1BePipQGc926evJoMwbcF94805422022-11-10T20:32:36.968ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/vu1ABVQuLE3R2SZpLLiP1zhttps://video.igem.org/lazy-static/thumbnails/b0bbdfa1-3cfa-46c4-9a3c-025fed61e176.jpg2022 PuiChing_Macau - High School Finalist Presentation2022 PuiChing_Macau - High School Finalist Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/eec236ec-6236-48a9-adf4-60950f05e2e5/2f4e77ff-42d5-419e-9db8-289c01f1275d-master.m3u8https://video.igem.org/videos/embed/vu1ABVQuLE3R2SZpLLiP1z96703052022-11-10T20:40:36.692ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/215DrqhZTkcpV7NztgFhw7https://video.igem.org/lazy-static/thumbnails/2fa76ec5-ada7-4a10-a7ee-cf84b34df522.jpgJason Kelly & Oliver Morton Fireside ChatJason Kelly & Oliver Morton Fireside Chathttps://static.igem.org/peertube/streaming-playlists/hls/081c0065-223f-4aab-b74a-986660761e3a/289043f5-c76d-4cb8-824c-1b07d41bdfcd-master.m3u8https://video.igem.org/videos/embed/215DrqhZTkcpV7NztgFhw714540512022-11-10T20:59:05.238ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/xA74Kgn3d2Z7r8nVjkQs24https://video.igem.org/lazy-static/thumbnails/7934ade2-8ed5-4528-bd03-9e1ad720ce03.jpg2022 UCopenhagen - Overgrad Finalist Presentation2022 UCopenhagen - Overgrad Finalist Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/ffce52f6-74e8-4afc-b7dc-e1f69b376395/14aa26ed-0b46-43f0-a50f-4360af6b5277-master.m3u8https://video.igem.org/videos/embed/xA74Kgn3d2Z7r8nVjkQs2483909392022-11-11T14:37:31.968ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/ibXZC1gLHextNpW4rm1YNxhttps://video.igem.org/lazy-static/thumbnails/c5b49a07-6c85-4a7e-9609-2260d5781f07.jpg2022 Montpellier - Overgrad Finalist Presentation2022 Montpellier - Overgrad Finalist Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/8b334d57-82dd-4934-848d-201fab7c8d0b/f3217c84-d199-466d-afab-43a461d692e3-master.m3u8https://video.igem.org/videos/embed/ibXZC1gLHextNpW4rm1YNx81501922022-11-11T14:45:36.005ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/fpuh74keGfEBGB6En2f5CEhttps://video.igem.org/lazy-static/thumbnails/d2966ccd-2cc6-4acc-8281-b32fbc6fd09f.jpgSynthetic Biology Everywhere: Regional Synbio Ecosystems (iGEM 2022 Keynote)Synthetic Biology Everywhere: Regional Synbio Ecosystems (iGEM 2022 Keynote)https://static.igem.org/peertube/streaming-playlists/hls/74a77984-8ae4-479e-9094-662353ed0f3e/c406c9fc-916b-483b-9b99-d4873080b568-master.m3u8https://video.igem.org/videos/embed/fpuh74keGfEBGB6En2f5CE275501042022-11-11T16:32:12.515ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/hbBypKzEUppJRgWiYLMv4xhttps://video.igem.org/lazy-static/thumbnails/3b01fe5f-05f6-4676-8fde-1340172c5cbe.jpgJason Kelly - From eau d'e coli to Grow Everything (iGEM 2022 Keynote)Jason Kelly - From eau d'e coli to Grow Everything (iGEM 2022 Keynote)https://static.igem.org/peertube/streaming-playlists/hls/830d91f4-a8af-4425-9f0b-c7894a15aae9/83f5b441-31d8-4da3-b48b-102e7b3b814b-master.m3u8https://video.igem.org/videos/embed/hbBypKzEUppJRgWiYLMv4x138902862022-11-11T16:46:06.499ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/3zq9uW1w79h6fwQTkBuRvWhttps://video.igem.org/lazy-static/thumbnails/7a08df20-d946-40c3-b6e6-f78afcdb3fa4.jpgBest Climate Crisis Project - iGEM 2022 Nominees & WinnersBest Climate Crisis Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/14dcb3da-e142-42cb-a1be-b61f54561fdc/b969ac0c-6db8-4ad1-9c9b-3d6e2c7140cd-master.m3u8https://video.igem.org/videos/embed/3zq9uW1w79h6fwQTkBuRvW7501382022-11-11T16:46:30.698ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/uPi25o6kA64FPU1iDLLswPhttps://video.igem.org/lazy-static/thumbnails/67761f89-782b-432c-9341-c8873b16653c.jpgBest Environment Project - iGEM 2022 Nominees & WinnersBest Environment Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/e95a53e5-7313-4502-b243-5d11498fc2a3/e364f534-4d69-45ff-9ace-9be34f1cd44d-master.m3u8https://video.igem.org/videos/embed/uPi25o6kA64FPU1iDLLswP7501862022-11-11T16:52:39.572ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/fwRzAQEAziYuokXXxEAdM7https://video.igem.org/lazy-static/thumbnails/301576ad-536a-404b-b0d8-8d23699e57bd.jpgBest Conservation Project - iGEM 2022 Nominees & WinnersBest Conservation Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/75aecf05-d2e7-4fd4-8d70-37c35ade3838/1090b474-a77d-42b9-8731-da9814b8bb31-master.m3u8https://video.igem.org/videos/embed/fwRzAQEAziYuokXXxEAdM7490622022-11-11T16:56:48.374ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/x9p4sWpcGdyGF597i6ymfThttps://video.igem.org/lazy-static/thumbnails/4eedae71-d4c7-4685-b746-78307d6d4aa5.jpgBest Food & Nutrition Project - iGEM 2022 Nominees & WinnersBest Food & Nutrition Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/fc3775ad-df84-4f69-bbb7-3097902a339f/4b1beb6c-ac6b-4ccb-bc2a-dabe1d15937e-master.m3u8https://video.igem.org/videos/embed/x9p4sWpcGdyGF597i6ymfT9002192022-11-11T17:08:16.204ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/f2oqLTa2dipSEgpoN5BF3Shttps://video.igem.org/lazy-static/thumbnails/1c1ba1a1-b588-4fe2-94be-8fed23bb522d.jpgBest Diagnostics Project - iGEM 2022 Nominees & WinnersBest Diagnostics Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/71918197-d1f8-43b8-a5be-607ea2eaa19a/43c6cebe-c90b-4ff2-838a-c1adb101670c-master.m3u8https://video.igem.org/videos/embed/f2oqLTa2dipSEgpoN5BF3S6001462022-11-11T17:13:58.799ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/bvCQuJf9V6rHaxJFgVLvR9https://video.igem.org/lazy-static/thumbnails/f846bb09-cc23-4b7d-879e-d49e4614db8b.jpgBest Therapeutics Project - iGEM 2022 Nominees & WinnersBest Therapeutics Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/551ea831-1999-4d5d-9943-9b747b8eb186/966c7c04-67cf-4524-90cb-38841565048b-master.m3u8https://video.igem.org/videos/embed/bvCQuJf9V6rHaxJFgVLvR97901092022-11-11T17:22:21.821ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/tGr8ZfzWERuUDJV3xnPnVjhttps://video.igem.org/lazy-static/thumbnails/d6326cf1-4c3b-4361-997e-ef66eadc0b64.jpgBest Foundational Advance Project - iGEM 2022 Nominees & WinnersBest Foundational Advance Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/e04bfc7d-0b0d-492d-8fc6-2ef2f22fe310/fd5745a1-981e-4425-af98-37f26d2678dd-master.m3u8https://video.igem.org/videos/embed/tGr8ZfzWERuUDJV3xnPnVj690942022-11-11T17:29:06.649ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/9QiKUyRc6NsJk1vqk623u3https://video.igem.org/lazy-static/thumbnails/d706d0ef-0136-4565-a4d9-d5e2f8a179ed.jpgBest Software & AI Project - iGEM 2022 Nominees & WinnersBest Software & AI Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/4787c0dd-bae8-433c-8a56-ee5a8b8aa37a/d763526a-ce45-48c6-ae6d-cfff095f5bd1-master.m3u8https://video.igem.org/videos/embed/9QiKUyRc6NsJk1vqk623u3700752022-11-11T17:34:36.494ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/xkzwGNGQbXxJj96fvLVMevhttps://video.igem.org/lazy-static/thumbnails/a67c4e34-59ed-43e9-94f2-637bc8db936c.jpgBest Biomanufacturing Project - iGEM 2022 Nominees & WinnersBest Biomanufacturing Project - iGEM 2022 Nominees & Winnershttps://static.igem.org/peertube/streaming-playlists/hls/fdc717e2-706e-4609-9574-fff141ff668b/779562d3-ccd3-44b7-b03b-7a99f8e3d9fe-master.m3u8https://video.igem.org/videos/embed/xkzwGNGQbXxJj96fvLVMev7301392022-11-11T17:41:02.775ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/iy1SiRR5uryrUsYZ7kkkGmhttps://video.igem.org/lazy-static/thumbnails/6928860f-789a-492e-ac06-fe3b4e623f29.jpgClimate Crisis (iGEM 2022) - Act I: Planet, Part 1/9During the last century, the accelerated rising of Earth’s average air temperature due to the combustion of fossil fuels has had disastrous effects on the global climate. Can synthetic biology be applied to develop carbon fixation technologies whi...https://static.igem.org/peertube/streaming-playlists/hls/8e23b141-2823-4168-bb77-4a384ecf33f8/e25f8569-4584-4018-9c34-e3d7e17c3ddc-master.m3u8https://video.igem.org/videos/embed/iy1SiRR5uryrUsYZ7kkkGm96010902022-11-11T17:51:05.706ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/d845zXF5modGW4LELGTV9yhttps://video.igem.org/lazy-static/thumbnails/817bac19-7e64-46ad-a436-431e2cfd4b43.jpgEnvironment (iGEM 2022) - Act I: Planet, Part 2/9The quality of land, water, and air limits the happiness of Earth's inhabitants. Can biotechnology be used to help clean the air, provide fresh drinking water, restore eroded lands, or enhance soil quality? Can the same technologies be applied to ...https://static.igem.org/peertube/streaming-playlists/hls/6229c491-b64f-414b-a6ba-481d6e064cdc/2fa8727c-b6a7-4949-af83-fa8724159c7c-master.m3u8https://video.igem.org/videos/embed/d845zXF5modGW4LELGTV9y120010132022-11-11T18:04:17.327ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/5BSEtZk8UkUmgvXGLnLTTbhttps://video.igem.org/lazy-static/thumbnails/17ab2665-8a81-4806-8ce0-34d3485545d3.jpgConservation (iGEM 2022) - Act I: Planet, Part 3/9Environmental destruction, monocultures in agriculture, disease, and other human activities have affected the health of plants, animals, and their ecosystems for a long time. How can synthetic biology be applied to the protection of endangered spe...https://static.igem.org/peertube/streaming-playlists/hls/2566cf1f-a333-4d95-b584-cdc4d77cf0f4/55e3b18e-6b4b-4e05-b822-9ba2548d4007-master.m3u8https://video.igem.org/videos/embed/5BSEtZk8UkUmgvXGLnLTTb10907012022-11-11T18:14:24.046ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/8qHgta6RqZquPraqEwfzCuhttps://video.igem.org/lazy-static/thumbnails/0e229bef-c21d-437d-ab91-1968754825ef.jpgFood & Nutrition (iGEM 2022) - Act II: People, Part 4/9Everybody needs to eat. But with over 7 billion people on the planet, the problem of producing enough food is complex and multi-faceted. Can biotechnology be responsibly used to reduce food waste, or produce food or nutritional molecules without c...https://static.igem.org/peertube/streaming-playlists/hls/3c2340aa-9d87-4bcc-99d5-cbbe3a285938/9d24aa55-1f46-45ec-9d42-ea6ed707bd6f-master.m3u8https://video.igem.org/videos/embed/8qHgta6RqZquPraqEwfzCu10808282022-11-11T18:28:07.855ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/q4Dw22EbtLv9HZWYc3D2Yihttps://video.igem.org/lazy-static/thumbnails/eef726eb-678f-44e2-a224-18f29c238f9d.jpgSoftware & AI (iGEM 2022) - Act II: Foundations, Part 9/9If you are going to design a new life form, chances are you’ll need a computer to design the smallest genetic circuits and deal with genome-scale complexity. Artificial intelligence and machine learning promise to bring a new level of computationa...https://static.igem.org/peertube/streaming-playlists/hls/c2ddae1e-f1be-4575-a040-5f4ae18469ad/342764b5-8c21-4cf9-b681-9d0433b7db91-master.m3u8https://video.igem.org/videos/embed/q4Dw22EbtLv9HZWYc3D2Yi11906412022-11-11T18:39:30.740ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/hha5EpHhZiPkQgM2s4bRPUhttps://video.igem.org/lazy-static/thumbnails/0b345e80-a3c8-44ad-a2d5-d3a467054233.jpgTherapeutics (iGEM 2022) - Act II: People, Part 6/9Many health and medical problems can best be addressed with new and novel therapies. What can synthetic biology do to improve techniques, technology and access to novel therapies?https://static.igem.org/peertube/streaming-playlists/hls/83d3b701-6060-488b-b45f-7de1331bef7e/62b016d0-8d50-4121-947e-2e1599b604ca-master.m3u8https://video.igem.org/videos/embed/hha5EpHhZiPkQgM2s4bRPU104010602022-11-11T18:48:01.564ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/9CyhLwJ6wdcy3ALExujY8ahttps://video.igem.org/lazy-static/thumbnails/c202d1de-8b8b-4696-8bb4-8f62584a2b24.jpgFoundational Advance (iGEM 2022) - Act III: Foundations, Part 7/9iGEM relies on a number of foundational technologies to function. We use BioBricks, standardization (RFCs), high-throughput quality control and many other processes to run the competition. The Foundational Advance track allows teams to come up wit...https://static.igem.org/peertube/streaming-playlists/hls/45e3c8ab-54f7-49ce-8b2d-61d0ce972def/03df552e-8f52-4fba-b7f4-20e514802160-master.m3u8https://video.igem.org/videos/embed/9CyhLwJ6wdcy3ALExujY8a12505442022-11-11T19:00:32.403ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/raq9foPqRat6Vm6KMYbhnfhttps://video.igem.org/lazy-static/thumbnails/056fc3ac-bbbf-402f-b444-5ffe44c7b4f1.jpgBiomanufacturing (iGEM 2022) - Act III: Foundations, Part 8/9What can biology be programmed to manufacture? Biological systems can be used to make products under conditions that were previously impossible. Many enzymes can achieve reaction conditions in a tube that would otherwise require high temperatures,...https://static.igem.org/peertube/streaming-playlists/hls/cbc509e1-5e0d-4828-99de-7ab37a469880/f2461ba9-acbd-4582-8e43-9bb480bea842-master.m3u8https://video.igem.org/videos/embed/raq9foPqRat6Vm6KMYbhnf12309142022-11-11T19:10:32.758ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/aTcgPGFiNm4g767d8Arx6Fhttps://video.igem.org/lazy-static/thumbnails/133d4d3c-3b7d-496c-9bfe-9e45e32d2c28.jpgPlaza #1: Day 1/2 (iGEM 2022 Grand Jamboree) - Full LivestreamPlaza #1: Day 1/2 (iGEM 2022 Grand Jamboree) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/50082098-0d2b-4410-8d33-85d75a75190d/a91f4407-1dd9-4535-b233-060eac183f7c-master.m3u8https://video.igem.org/videos/embed/aTcgPGFiNm4g767d8Arx6F256890902022-11-11T19:27:57.203ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/eoZ4DH1TmU9U8JgBFknGcThttps://video.igem.org/lazy-static/thumbnails/2c55dce4-16ef-4207-927c-613c4d7fcd80.jpgPlaza #1: Day 2/2 (iGEM 2022 Grand Jamboree) - Full LivestreamPlaza #1: Day 2/2 (iGEM 2022 Grand Jamboree) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/6c7c54f0-f81f-46d5-abd8-d7f7dcf1a169/7d4f0523-22b0-40f2-af58-ec6d0be1e184-master.m3u8https://video.igem.org/videos/embed/eoZ4DH1TmU9U8JgBFknGcT273130532022-11-11T19:56:08.649ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/vHKik5iFH2owS94nrnF88Zhttps://video.igem.org/lazy-static/thumbnails/16f6e4da-a0bc-4f88-af2a-5d9d3d76d5a1.jpgPlaza #2: Day 1/2 (iGEM 2022 Grand Jamboree) - Full LivestreamPlaza #2: Day 1/2 (iGEM 2022 Grand Jamboree) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/f0ad3314-3322-4bfe-96ad-712bac0b7f93/7a563452-e0f2-4c39-9ff3-ccec0c90ae3a-master.m3u8https://video.igem.org/videos/embed/vHKik5iFH2owS94nrnF88Z331360792022-11-11T20:29:40.580ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/oPuRetaUoj2RtMaUGp7nuPhttps://video.igem.org/lazy-static/thumbnails/1868e5d3-d91b-4402-89a2-1a0921e0e92c.jpgPlaza #2: Day 2/2 (iGEM 2022 Grand Jamboree) - 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Full LivestreamiGEM TV: Day 1/2 (iGEM 2022 Grand Jamboree) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/67564bae-e33e-4a3f-b2ca-0070d68fce42/338c0ac0-fe7d-484a-beb0-a9a17137e0c2-master.m3u8https://video.igem.org/videos/embed/dL7kAw9SxiAnYYExGabkTG77110582022-11-11T21:56:13.906ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/7Kex9Bg6cvEcY3bWs1krCthttps://video.igem.org/lazy-static/thumbnails/faa5eebb-a8e4-4b27-a00b-109c54ee3eab.jpgiGEM TV: Day 2/2 (iGEM 2022 Grand Jamboree) - Full LivestreamiGEM TV: Day 2/2 (iGEM 2022 Grand Jamboree) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/36a02814-daf3-4628-bac6-974033ea6c7f/c03d51a5-7c61-4985-ac7c-e2dce22a1c72-master.m3u8https://video.igem.org/videos/embed/7Kex9Bg6cvEcY3bWs1krCt98940682022-11-11T22:11:28.049ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/tFinoqNTw4RpfvrLn8jiuXhttps://video.igem.org/lazy-static/thumbnails/7e188ed3-318d-4987-bfc2-bc88356184e3.jpgPlaza #3: Day 2/2 (iGEM 2022 Grand Jamboree) - 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Full LivestreamPlaza #4: Day 2/2 (iGEM 2022 Grand Jamboree) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/97df1e50-29a0-4ccb-8f46-f8007141067f/297cba81-c589-4f08-9a50-3e0b2d93822c-master.m3u8https://video.igem.org/videos/embed/jKHB8ysWY8SPHZabo9dRDr248370492022-11-12T12:36:59.875ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/36mJCdkCWP8zrNHbf6WYPqhttps://video.igem.org/lazy-static/thumbnails/2612503c-4e50-4979-bd8f-5efe5f56299c.jpgPlaza #6: Day 1/2 (iGEM 2022 Grand Jamboree - Startups) - Full LivestreamPlaza #6: Day 1/2 (iGEM 2022 Grand Jamboree - Startups) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/10f1c646-24a1-45c1-96e9-3ecc45f0101e/376500a8-c435-4385-b417-0af9a455489e-master.m3u8https://video.igem.org/videos/embed/36mJCdkCWP8zrNHbf6WYPq182790412022-11-12T14:24:25.303ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/5NugLTD4FJW9jqrfUuFFnJhttps://video.igem.org/lazy-static/thumbnails/7fd2350a-b937-49b7-a7f3-8a73edb8f2a9.jpgPlaza #6: Day 2/2 (iGEM 2022 Grand Jamboree - Startups) - Full LivestreamPlaza #6: Day 2/2 (iGEM 2022 Grand Jamboree - Startups) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/26e230f7-8f1a-4909-8772-0f6046c02dc0/cb2a25ac-5165-489d-b78a-40d0ebff1313-master.m3u8https://video.igem.org/videos/embed/5NugLTD4FJW9jqrfUuFFnJ243910472022-11-12T14:26:30.543ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/g2c4Psn4Fbxps2uroGDf5Zhttps://video.igem.org/lazy-static/thumbnails/1241da63-139c-49b8-bc85-ed10efc8fb41.jpgPlaza #5: Day 2/2 (iGEM 2022 Grand Jamboree) - Full LivestreamPlaza #5: Day 2/2 (iGEM 2022 Grand Jamboree) - Full Livestreamhttps://video.igem.org/static/streaming-playlists/hls/79a3a4aa-be0c-4632-bf90-f437d3e2c261/5823d08d-8c68-4a66-83d1-f9839c5d15c1-master.m3u8https://video.igem.org/videos/embed/g2c4Psn4Fbxps2uroGDf5Z257680412022-11-12T14:29:42.741ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/moG5edoRX7foJZytH9uXJUhttps://video.igem.org/lazy-static/thumbnails/356d5a7b-1afd-4ff5-bff2-3f33b7a4ed60.jpgPlaza #5: Day 1/2 (iGEM 2022 Grand Jamboree) - Full LivestreamPlaza #5: Day 1/2 (iGEM 2022 Grand Jamboree) - Full Livestreamhttps://static.igem.org/peertube/streaming-playlists/hls/a521d4f9-e102-4662-a207-6a495107b5b4/8018fab5-7b21-4e8c-b086-139744d1742d-master.m3u8https://video.igem.org/videos/embed/moG5edoRX7foJZytH9uXJU309340472022-11-12T14:39:20.373ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/6TDZxgFFTySePRk4VgJi87https://video.igem.org/lazy-static/thumbnails/dc26e00e-3e10-48c3-8a56-ee6f2d4d6809.jpgiGEM Design League - PartnersiGEM Design League - Partnershttps://static.igem.org/peertube/streaming-playlists/hls/2fb409fc-3f7b-4490-ba11-8dcab594bee0/401bf64c-db82-4bb2-af81-a3700052fa84-master.m3u8https://video.igem.org/videos/embed/6TDZxgFFTySePRk4VgJi87790392022-11-14T16:53:18.173ZYESiGEM Design LeagueNOhttps://video.igem.org/w/9ohcwwaWTwNW8ns4945qGFhttps://video.igem.org/lazy-static/thumbnails/9756fca8-2f78-42d4-b2ec-9705335883b4.jpgDiagnostics (iGEM 2022) - Act II: People, Part 5/9Many medical conditions can be successfully treated if only they are diagnosed at an early enough stage. Diagnostic technologies also play a key role in preventive healthcare, public health, and epidemiology. Can your team come up with faster, che...https://static.igem.org/peertube/streaming-playlists/hls/43e5747d-8a46-43e9-8072-463aee9db827/7eb35e53-d8bc-45b4-b243-35ba226f44a6-master.m3u8https://video.igem.org/videos/embed/9ohcwwaWTwNW8ns4945qGF9109692022-11-16T09:58:45.924ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/1bpLNBnWC2qDvSuJAzb8iThttps://video.igem.org/lazy-static/thumbnails/b0f3a7c8-40c3-477a-a0e2-4e51a20a73f7.jpgLens on Labs - Prof. Widhi SawitriPlant molecular farming (PMF) concept is harnessing the potential of plants as biological factories to produce high molecular products, such as recombinant proteins and valuable metabolites. There are many molecular farming products that have been commercialized to produce diagnostic proteins, therapeutic proteins, vaccines, and small molecules. The benefit of plant-based molecular farming encompasses a realistic alternative expression system. It provides a practical solution to address the massive production of biopharmaceutical products, including cost-effective technology and eliminating possible contamination with human pathogens. Nowadays technological developments of PMF have been improved on many levels, ranging from genetic transformation methods to the use of different crops as production platforms. Increasing the accumulation of molecular farming products is one of the important strategies to develop. Here, are several case studies of PMF platforms and the challenges that might be hampered in agricultural biotechnology.https://static.igem.org/peertube/streaming-playlists/hls/01741687-c1f7-4a20-867a-9d678d5cc869/0572a0dd-23f0-46df-bedb-f0675d136b2d-master.m3u8https://video.igem.org/videos/embed/1bpLNBnWC2qDvSuJAzb8iT20590162022-12-12T18:33:45.999ZYESiGEM CommunityNOhttps://video.igem.org/w/kvRPLjxeeQ8VGUJTyYfWDrhttps://video.igem.org/lazy-static/thumbnails/2434395c-9420-4a9f-a609-6d250bd3cd47.jpgSynBio and SDGs #3 with Dr. Alexander A. GreenResponding to Disease Outbreaks Using Synthetic Biology- Enabled Diagnostics Alexander A. Green is an Assistant Professor in the Biomedical Engineering Department at Boston University. The Green lab pursues interdisciplinary research in areas spanning synthetic biology, diagnostics, and nanotechnology. His lab employs computational design to engineer RNA molecules that sense and amplify molecular cues to develop diagnostic assays that are portable, low cost, and easy to use. They also employ RNA to construct biological circuits that operate in living cells. He is an Alfred P. Sloan Research Fellow in Computational & Evolutionary Molecular Biology (2017) and the recipient of an NIH New Innovator Award (2017), a DARPA Young Faculty Award (2017), a DARPA Young Faculty Award Director’s Fellowship (2019), and an Arizona Biomedical Research Commission New Investigator Award (2017). https://static.igem.org/peertube/streaming-playlists/hls/9e08e8a0-de32-47e5-a8bb-a10a09f25383/dda77861-97b6-481a-b127-bfffa04c8e45-master.m3u8https://video.igem.org/videos/embed/kvRPLjxeeQ8VGUJTyYfWDr26350522022-12-12T19:14:30.236ZYESiGEM CommunityNOhttps://video.igem.org/w/7cz2Ez9nG6SZoxLw265Cg5https://video.igem.org/lazy-static/thumbnails/bd5e38a6-3229-4451-bb32-4a877c790324.jpgASU: Protocol for the Transformation of c. reinhardtii (2022) [English]An instructional video showing a specific technique of cellular transformation in c. reinhardtii using the glass bead transformation method. Multiple variations of this protocol exist in literature, however, this adapted version gave our team the most success (i.e. the highest number of successful transformations). Protocol Written and Preformed by: Priyati Sharma, Gabriella Cerna, Tohma Taniguchi, & Reuven White Voiceover: Gabriella Cerna Illustrations: Gabriella Cerna & Reuven White Video: Reuven White ASU iGEM Team Members Featured: Priyati Sharma, Gabriella Cerna, Tohma Taniguchi, & Reuven White Check out our full project on our wiki, at https://2022.igem.wiki/asu/https://static.igem.org/peertube/streaming-playlists/hls/32345e3b-6935-4e53-972d-0f150a8c048a/ae353075-a917-413a-ae23-2c6fac16b990-master.m3u8https://video.igem.org/videos/embed/7cz2Ez9nG6SZoxLw265Cg53310212022-12-12T22:57:54.042Zphototroph communitychlamydomonasc. reinhardtiiglass bead transformationArizona State UniversityYESiGEM 2022 TeamsNOhttps://video.igem.org/w/ayeU6wtKWfhDF5ysMFtd9chttps://video.igem.org/lazy-static/thumbnails/b979d94e-b48c-4725-a34c-00959ff36935.jpgASU: Low Tech Filter Design (2022) [English]A Low-Tech version of ASU iGEM's water filter. In contrast to the high-tech version, the low-tech filtration system is cheaper and less complicated in design due to fewer moving parts and fewer tasks it needs to complete. It is intended for farm or ranch livestock, who have a higher threshold of acceptable arsenic consumption than humans. As a result, the low-tech filter does not need to meet the strict design considerations that made the high-tech filter so expensive and complicated. Filter Design: Katie Pascavis & Rishabh Guttal Voiceover: Katie Pascavis Video: Katie Pascavis ASU iGEM Team Members Featured: Katie Pascavishttps://static.igem.org/peertube/streaming-playlists/hls/4d629d17-eebf-48b1-b2b9-36a132ea2cd3/1351ddc2-11e8-4738-8626-c84a22239f7c-master.m3u8https://video.igem.org/videos/embed/ayeU6wtKWfhDF5ysMFtd9c34052022-12-12T23:09:42.893Zbioremediationwater filterLow Tech FilterASUArizona State UniversityYESiGEM 2022 TeamsNOhttps://video.igem.org/w/x8U6LiVcV2JsgZa1WorXVxhttps://video.igem.org/lazy-static/thumbnails/9dc3c621-6b9d-404c-a08f-9799ec81d409.jpgASU: High Tech Filter Design (2022) [English]Arizona State University's high-tech filtration system that utilizes our strain of C. reinhardtii to remove arsenic as part of a total water treatment system. While this design provides an investigation of possible uses of arsenic-uptaking algae, overall, it would be an incredibly expensive system. There are other water treatment technologies that are more accessible and practical. For our end users – Arizona residents with extreme arsenic levels in their water supplies–current technology would be more economical. After presenting this design, we moved on to a low-tech filter, which was designed after implementing the feedback of various stakeholders, limits the arsenic in the water supplies of livestock. Filter Design: Katie Pascavis & Rishabh Guttal Voiceover: Katie Pascavis Video: Katie Pascavis ASU iGEM Team Members Featured: Katie Pascavishttps://static.igem.org/peertube/streaming-playlists/hls/fc259cbb-4329-46d1-9b92-6651c7632165/1bfc8e92-a161-46ac-b157-7f4ab727a14e-master.m3u8https://video.igem.org/videos/embed/x8U6LiVcV2JsgZa1WorXVx30042022-12-12T23:18:41.207ZbioremediationHigh tech filterWater filterASUArizona State UniversityYESiGEM 2022 TeamsNOhttps://video.igem.org/w/5WzpkssDuRZ7AgdVxD1s6uhttps://video.igem.org/lazy-static/thumbnails/ebbded19-6972-4625-b1e2-0a0642641b67.jpgASU: ASU x QGEM Podcast H2bio Episode 2: Dr. Varman (2022) [English]Episode 2 of the ASU x QGEM podcast H2bio, featuring Dr. Varman. In this series of podcasts, we (the ASU and QGEM teams) have discussions with various professionals in the fields of water decontamination, synthetic biology, and bioethics speak to us about the different considerations that need to be made when solving water quality issues with bioremediation. Speakers: Dr. Arul Varman, interviewed by Tohma Taniguchi (ASU), Priyati Sharma (ASU), and Avery Mooring (QGEM)https://static.igem.org/peertube/streaming-playlists/hls/28034d9a-9ded-496a-9841-beb66ad0f4d6/3ae8ac13-4a00-458f-ac6a-6957e49dffad-master.m3u8https://video.igem.org/videos/embed/5WzpkssDuRZ7AgdVxD1s6u1134042022-12-12T23:40:30.598ZQueens UniversityH2bio podcastDr. VarmanArizona State UniversityASUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/jafS26a1FjR1xQexh2zJTThttps://video.igem.org/lazy-static/thumbnails/f85a88de-a54f-4b1a-883e-5cdaf49f38fd.jpgASU: ASU x QGEM Podcast H2bio Episode 3: Dr. Rosa Krajmalnik-Brown (2022) [English]Episode 3 of the ASU x QGEM podcast H2bio, featuring Dr. Rosa Krajmalnik-Brown. In this series of podcasts, we (the ASU and QGEM teams) have discussions with various professionals in the fields of water decontamination, synthetic biology, and bioethics speak to us about the different considerations that need to be made when solving water quality issues with bioremediation. Speakers: Dr. Rosa Krajmalnik-Brown, interviewed by Carol Lu (ASU)https://static.igem.org/peertube/streaming-playlists/hls/930f595d-9d9d-4a30-bc29-2114d9df6221/5a8ccf95-fe90-4bf0-b34b-71f8b58cb493-master.m3u8https://video.igem.org/videos/embed/jafS26a1FjR1xQexh2zJTT1508022022-12-12T23:52:28.145ZDr. Rosa Krajmalnik-Brownh2bio podcastQueens UniversityArizona State UniversityASUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/fjKv23VYViz6no6HUsj4t9https://video.igem.org/lazy-static/thumbnails/9c866ca5-c643-45c1-a56b-865c6be3678c.jpgASU: ASU x QGEM Podcast H2bio Episode 4: Dr. Sundaram (2022) [English]Episode 4 of the ASU x QGEM podcast H2bio, featuring Dr. Sundaram. In this series of podcasts, we (the ASU and QGEM teams) have discussions with various professionals in the fields of water decontamination, synthetic biology, and bioethics speak to us about the different considerations that need to be made when solving water quality issues with bioremediation. Speakers: Dr. Lalitha Sundaram, interviewed by Carol Lu (ASU) and Avery Mooring (QGEM)https://static.igem.org/peertube/streaming-playlists/hls/73fe231a-487a-4fdf-a5b9-ce97d6b49542/d845800a-83be-40fb-82b1-6c96cab3d07f-master.m3u8https://video.igem.org/videos/embed/fjKv23VYViz6no6HUsj4t92183032022-12-12T23:53:16.343ZDr. Sundaramh2bio podcastQueens UniversityArizona State UniversityASUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/dydcXeBRBngPUP6cWfgPaPhttps://video.igem.org/lazy-static/thumbnails/9b673652-1728-42e6-a791-3be092d064ea.jpgASU: ASU x QGEM Podcast H2bio Episode 1: Dr. Brown (2022) [English]Episode 1 of the ASU x QGEM podcast H2bio, featuring Dr. Brown. In this series of podcasts, we (the ASU and QGEM teams) have discussions with various professionals in the fields of water decontamination, synthetic biology, and bioethics speak to us about the different considerations that need to be made when solving water quality issues with bioremediation. Speakers: Dr. Stephen Brown, interviewed by Priyati Sharma (ASU), Carol Lu (ASU), Avery Mooring (QGEM), and Kristen Di Stefano (QGEM)https://static.igem.org/peertube/streaming-playlists/hls/65acfca0-4601-47af-a4f5-f74a64158f0d/5c107ac2-f633-4c4d-b9cb-9b5b0a32dea2-master.m3u8https://video.igem.org/videos/embed/dydcXeBRBngPUP6cWfgPaP1630062022-12-13T00:06:52.101Zh2bio podcastQueens UniversityDr. BrownArizona State UniversityASUYESiGEM 2022 TeamsNOhttps://video.igem.org/w/4ErY8fqfxs3xKqymacBsPahttps://video.igem.org/lazy-static/thumbnails/fbee5f0a-8974-4677-b1de-53e1fd9c3d6f.jpgiGEM 2022 - The Travelling Biobrick (Final Day)iGEM 2022 - The Travelling Biobrick (Final Day)https://static.igem.org/peertube/streaming-playlists/hls/1da9aeb0-e085-4967-b808-b4ddb332751f/64801493-3ebe-40ad-8a7d-5dedfc808f6d-master.m3u8https://video.igem.org/videos/embed/4ErY8fqfxs3xKqymacBsPa1740932022-12-13T09:32:24.765ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/tocFEV4FVxjsExXR4HrJxihttps://video.igem.org/lazy-static/thumbnails/8233ce5c-d097-49f3-abc3-6b28220f4d2a.jpgiGEM 2022 Final Day 1/9 - President's MessageiGEM 2022 Final Day 1/9 - President's Messagehttps://static.igem.org/peertube/streaming-playlists/hls/ddc04ea9-343c-43b5-85df-6abb577c4c17/f616c7f3-4817-487c-a421-94f949c185a0-master.m3u8https://video.igem.org/videos/embed/tocFEV4FVxjsExXR4HrJxi83202662022-12-13T11:54:43.007ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/xxmHUoUdRCRjw9Hr54g6NChttps://video.igem.org/lazy-static/thumbnails/70dbbc48-3bf4-470c-9de0-778af094f6fb.jpgiGEM 2022 Final Day 2/9 - Act I: PlanetiGEM 2022 Final Day 2/9 - Act I: Planethttps://static.igem.org/peertube/streaming-playlists/hls/ff6c2041-f7fb-40cf-9cd3-7a950821410c/0c0aa8b7-33d6-468c-9d57-f363e5bdff31-master.m3u8https://video.igem.org/videos/embed/xxmHUoUdRCRjw9Hr54g6NC75502292022-12-13T12:23:13.986ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/sJ7ua7RF4xMfs958qmXwg4https://video.igem.org/lazy-static/thumbnails/bbdbdb27-3310-4d40-b500-733155cc4c50.jpgiGEM 2022 Final Day 3/9 - Act II: PeopleiGEM 2022 Final Day 3/9 - Act II: Peoplehttps://static.igem.org/peertube/streaming-playlists/hls/d86ed71e-b156-416f-b97e-00271e7a0a39/23335618-a8a6-409f-b67e-bcbda972fa7a-master.m3u8https://video.igem.org/videos/embed/sJ7ua7RF4xMfs958qmXwg46800732022-12-13T13:58:25.128ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/38PE8zdS4ED8mLQL2BULBwhttps://video.igem.org/lazy-static/thumbnails/88aadbf9-56c2-415f-bd48-94a2ff06d5e0.jpgiGEM 2022 Final Day 4/9 - Act III: FoundationsiGEM 2022 Final Day 4/9 - Act III: Foundationshttps://static.igem.org/peertube/streaming-playlists/hls/1149da88-3388-4475-aae4-d3eff8b0bc2c/8be73a9c-2ae4-430a-ade0-c080d963961d-master.m3u8https://video.igem.org/videos/embed/38PE8zdS4ED8mLQL2BULBw7170622022-12-13T14:48:55.697ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/ao6nqoW9q1W4kK7F3ZGxKAhttps://video.igem.org/lazy-static/thumbnails/2b6427ff-c20e-44fa-8e58-11708a80148b.jpgiGEM 2022 Final Day 5/9 - Technology AwardsiGEM 2022 Final Day 5/9 - Technology Awardshttps://static.igem.org/peertube/streaming-playlists/hls/4bf7eb7a-bac4-4627-ad3b-541aab86f30c/af570037-74bf-4936-b363-ba248870687f-master.m3u8https://video.igem.org/videos/embed/ao6nqoW9q1W4kK7F3ZGxKA8580472022-12-13T16:30:56.508ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/fZth8yFGpB5tsPNVNgsCF7https://video.igem.org/lazy-static/thumbnails/c528ce8c-1269-41c1-b6d2-277cf55c5cbb.jpgiGEM 2022 Final Day 8/9 - MedalsiGEM 2022 Final Day 8/9 - Medalshttps://static.igem.org/peertube/streaming-playlists/hls/79662598-cb25-4a34-8333-24a063ca8dec/7be921e7-525e-4869-b19c-8c7d9796f1e6-master.m3u8https://video.igem.org/videos/embed/fZth8yFGpB5tsPNVNgsCF72240712022-12-13T16:58:10.945ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/mNjR5fW742ccMQadFZagvnhttps://video.igem.org/lazy-static/thumbnails/fc67fbdb-9ac5-497a-bc52-2d151a3d66fa.jpgiGEM 2022 Final Day 9/9 - Grand Prize WinnersiGEM 2022 Final Day 9/9 - Grand Prize Winnershttps://static.igem.org/peertube/streaming-playlists/hls/a86e99d7-07f2-43ec-b86b-7634d63bea9b/52ff0c8f-ce53-4eeb-9384-e2f96e8560a9-master.m3u8https://video.igem.org/videos/embed/mNjR5fW742ccMQadFZagvn58901242022-12-13T18:33:00.242ZsynbioYES2022 Grand JamboreeNOhttps://video.igem.org/w/fGXLNNW5PGtphFrBdukDamhttps://video.igem.org/lazy-static/thumbnails/2f478938-bb55-4337-8e50-b04b25609b9d.jpgiGEM 2022 Final Day 6/9 - Act IV: Out of the lab, into the WorldiGEM 2022 Final Day 6/9 - Act IV: Out of the lab, into the Worldhttps://static.igem.org/peertube/streaming-playlists/hls/77181026-67df-4e3e-93c8-b2206fbfc6ca/ecae20ee-8098-4e97-9279-33562aa3a032-master.m3u8https://video.igem.org/videos/embed/fGXLNNW5PGtphFrBdukDam11200592022-12-13T20:13:10.865ZsynbioYES2022 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JamboreeNOhttps://video.igem.org/w/2aiHd2zjJLPyfaosqMLbKrhttps://video.igem.org/lazy-static/thumbnails/814026e2-0c96-4997-8f6e-a61911e4ca79.jpgEstonia_TUIT: Song "I'm in love with the iGEM" (2022) [English]A song about iGEM and our love towards it from the Estonia_TUIT team 2022. https://2022.igem.wiki/estonia-tuit/https://static.igem.org/peertube/streaming-playlists/hls/0965bf3f-1075-4607-a2d3-3faa4fc7b56f/a79a074b-5e93-4fe1-a1c4-b075abddcc32-master.m3u8https://video.igem.org/videos/embed/2aiHd2zjJLPyfaosqMLbKr1820972022-12-16T17:25:19.131ZYESiGEM 2022 TeamsNOhttps://video.igem.org/w/8spcqouEFM1iXTXmDVzzrJhttps://video.igem.org/lazy-static/thumbnails/3108bd01-fb78-47ae-997d-69bef6d83064.jpgManchester: Plaza Presentation (2022)Manchester: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/3c5f9aaf-808d-49ef-a1f1-e197a2770690/f75bf1c7-eafe-42c8-9d11-5e56e797ab91-master.m3u8https://video.igem.org/videos/embed/8spcqouEFM1iXTXmDVzzrJ880072022-12-26T12:03:30.485ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/rtqY2P7KdTpdr9dvGYD83shttps://video.igem.org/lazy-static/thumbnails/9b54e4e0-ee95-4314-8685-e89676bf0afd.jpgToulouse_INSA-UPS: Plaza Presentation (2022)Toulouse_INSA-UPS: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/ce48ef25-a905-4b12-a942-6eb322c8be12/b07272b9-d5cd-42e0-868a-ae85b60b34a3-master.m3u8https://video.igem.org/videos/embed/rtqY2P7KdTpdr9dvGYD83s8250142022-12-26T12:56:59.218ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/t5hrgEq7HaWYcFRERGsTNehttps://video.igem.org/lazy-static/thumbnails/7059ef3d-d9a7-448b-8103-2b2cbd5b81b5.jpgGO_Paris-Saclay: Plaza Presentation (2022)GO_Paris-Saclay: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/db3fd906-6425-41d1-8f1c-a90fb17473d5/fae205d0-ab8a-4db4-8252-fc19c49fc7c4-master.m3u8https://video.igem.org/videos/embed/t5hrgEq7HaWYcFRERGsTNe781032022-12-26T13:01:04.027ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/qm7iu35usF6WEpchNZmMMihttps://video.igem.org/lazy-static/thumbnails/60ee1c7a-4119-4344-9e0a-46515b01f0c1.jpgMcGill: Plaza Presentation (2022)McGill: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/c52a162d-f252-44a6-a86f-ae1d51856a87/31cba794-e659-4f40-b320-67b54136fa70-master.m3u8https://video.igem.org/videos/embed/qm7iu35usF6WEpchNZmMMi8340902022-12-26T13:04:34.636ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/d6a8nmM1YWXkm17B2fJdyChttps://video.igem.org/lazy-static/thumbnails/6850e394-f37e-4b97-9f4f-80e65f3abf80.jpgUSP-EEL-Brazil: Plaza Presentation (2022)USP-EEL-Brazil: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/61e601eb-fffc-4dce-a158-8ea49d64c1e4/c8d9b86c-065f-4a36-b742-3296ec5aa67b-master.m3u8https://video.igem.org/videos/embed/d6a8nmM1YWXkm17B2fJdyC771012022-12-26T13:09:50.365ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/rdNANL33EevdCWb2YYhYs4https://video.igem.org/lazy-static/thumbnails/c216539d-9e00-413d-bde3-1255290c2b22.jpgLatvia-Riga: Plaza Presentation (2022)Latvia-Riga: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/cc3e1c2d-ef6e-4530-9b4e-c4bb8a865407/6549e7aa-c4c2-4bfb-bcb2-9a8a89a3c709-master.m3u8https://video.igem.org/videos/embed/rdNANL33EevdCWb2YYhYs4879092022-12-26T13:13:12.684ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/8q9HXBAVeJBzcdmGA282QZhttps://video.igem.org/lazy-static/thumbnails/2b8df002-bd91-430e-9861-a8098d877089.jpgMSP-Maastricht: Plaza Presentation (2022)MSP-Maastricht: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/3c0f3275-6536-4cff-9f66-e80513886da5/d62c7e38-d0a2-45f6-b157-d1c44c290cf6-master.m3u8https://video.igem.org/videos/embed/8q9HXBAVeJBzcdmGA282QZ802022022-12-26T13:15:51.881ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/3WRKt7GUFYKH9oMQAZKUqthttps://video.igem.org/lazy-static/thumbnails/5eac7e0e-a3ce-44b4-adcc-9ad6c83edb6a.jpgMunich: Plaza Presentation (2022)Munich: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/17db199e-f2c3-4af6-8d63-e87effda03e3/5a036880-0b51-4ffa-bbd0-daec825973a5-master.m3u8https://video.igem.org/videos/embed/3WRKt7GUFYKH9oMQAZKUqt8460622022-12-26T13:18:20.476ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/uA8W3YhHfspSmBptD6np2Thttps://video.igem.org/lazy-static/thumbnails/48ab579b-9220-4ab8-92f7-bbaf94b5b0d8.jpgUTokyo: Plaza Presentation (2022)UTokyo: Plaza Presentation 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(2022)https://static.igem.org/peertube/streaming-playlists/hls/52c844f4-de3e-4511-b6ee-7402bbb45e74/a752f915-21f6-44e9-ab0b-a0f1d05687e4-master.m3u8https://video.igem.org/videos/embed/bdTREgLV5CSHmvLWwTBJzJ9020122022-12-27T10:29:10.723ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/n9TLpXkq6edQ6btRsJrTfxhttps://video.igem.org/lazy-static/thumbnails/8687cacd-92fa-4b41-bad8-7acfb9e8077f.jpgAix-Marseille: Plaza Presentation (2022)Aix-Marseille: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/ab4dc387-d53e-403f-8a9d-dc273bd3efff/bc20ec04-bfe6-46f1-979a-d5290851a45f-master.m3u8https://video.igem.org/videos/embed/n9TLpXkq6edQ6btRsJrTfx8320182022-12-27T10:35:31.713ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/wfWdv7TRin19yDXptuycSehttps://video.igem.org/lazy-static/thumbnails/0acf43b1-66ef-41c3-90a9-dbe64ae5d456.jpgTheKingsSchool_AU_HS: Plaza Presentation (2022)TheKingsSchool_AU_HS: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/f507fbee-0c69-471d-831f-85bb2ce2dccd/8ff7d80f-57e1-4f7c-aa01-d5b5ea50e808-master.m3u8https://video.igem.org/videos/embed/wfWdv7TRin19yDXptuycSe9230412022-12-27T10:43:06.876ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/u3UGaQiYaZAKHgSegzDgxkhttps://video.igem.org/lazy-static/thumbnails/66cabbda-b52c-4130-a23b-78a13fa3b0b4.jpgExeter: Plaza Presentation (2022)Exeter: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/e327d7cd-31dd-4762-9164-8f85098d2aad/e2252c69-29d0-45df-9fbb-e69109dc6309-master.m3u8https://video.igem.org/videos/embed/u3UGaQiYaZAKHgSegzDgxk8920652022-12-27T10:50:30.021ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/nXPUTBu1KDRnRtjtwMK1U1https://video.igem.org/lazy-static/thumbnails/3b1375e0-3c93-4ba2-9ee7-4642015e21e0.jpgAnatolia_College_HS: Plaza Presentation (2022)Anatolia_College_HS: Plaza Presentation (2022)https://static.igem.org/peertube/streaming-playlists/hls/b1db5891-123e-4e1e-92f5-7477ce446bd0/dc9b82d5-0e94-4a7a-9c3d-3a281d1f087f-master.m3u8https://video.igem.org/videos/embed/nXPUTBu1KDRnRtjtwMK1U17180812022-12-27T10:55:46.606ZYES2022 Plaza PresentationsNOhttps://video.igem.org/w/sZmHkC4yZ9AKwPYntYAaGWhttps://video.igem.org/lazy-static/thumbnails/d7cd606b-c5b1-4682-9529-0ced9818969c.jpgiGEM 2022 Grand Jamboree - Final Day (Full)iGEM 2022 Grand Jamboree - Final Day (Full)https://static.igem.org/peertube/streaming-playlists/hls/da8fc3c4-deb9-4a09-b13c-381c49c1027a/701820b3-171c-4bc7-b967-3eed43183db6-master.m3u8https://video.igem.org/videos/embed/sZmHkC4yZ9AKwPYntYAaGW72750192022-12-27T19:08:59.995ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/8Z7FHiQYr1nXRy6Y8qcH6dhttps://video.igem.org/lazy-static/thumbnails/e9458b10-f33c-4fa7-ae77-f06c8dd4f42a.jpgSynBio and SDGs #4 with Dr. Eric Young - Engineering Biology OutsideEric Young is the Leonard P. Kinnicutt Assistant Professor of Chemical Engineering at Worcester Polytechnic Institute. His research objective is to understand and engineer novel microbial systems that improve the human condition, focusing primarily on the unique phenotypes and metabolism of fungi. Because synthetic biology is so underdeveloped in these organisms, Dr. Young and his collaborators are addressing multiple areas of need – genetic design aids, methods development, genomics data acquisition and workflows, modular parts collections, and pathway engineering. This research program informs his educational goal - to train the current and future workforce for an economy shaped by engineered biology. In recognition and support of these efforts, Dr. Young received a 2019 NSF CAREER award and a 2019 Massachusetts Life Sciences Center Building Breakthroughs award. https://static.igem.org/peertube/streaming-playlists/hls/40a97c2f-6901-4a2a-bf4f-15ab7710dd0a/291ad0f9-c39a-4854-a1f5-8a7a642aedd7-master.m3u8https://video.igem.org/videos/embed/8Z7FHiQYr1nXRy6Y8qcH6d3257092023-01-06T17:20:25.175ZYESiGEM CommunityNOhttps://video.igem.org/w/6zcQfnUok93JYQveqNjzk2https://video.igem.org/lazy-static/thumbnails/84b239ae-515c-45ec-a1e4-7f339e574753.jpgSynBio and SDGs #5 with Dr. Sanjay Vashee - Application of Synthetic Genomics for Human and Anima...Sanjay Vashee is a Professor and Rockville Campus Director at the J. Craig Venter Institute in Rockville, MD. After joining JCVI in 2003, Dr. Vashee helped the Synthetic Biology Group develop synthetic genomics methods and technologies that led to the creation of a synthetic organism based on Mycoplasma mycoides subspecies capri. His research interests leverage these synthetic genomics technologies to better study and develop therapeutics for human and animal diseases. Current projects include the development of vaccines and therapeutics for human and animal viral diseases as well as phage therapeutics targeted against AMR organisms. Prior to joining JCVI, Dr. Vashee was a postdoctoral fellow at Johns Hopkins University-School of Medicine where he was the first to characterize the in vitro DNA-binding properties of the human origin recognition complex, the initiator protein of eukaryotic DNA replication.https://static.igem.org/peertube/streaming-playlists/hls/2d208783-ab23-4e75-b340-bc728502a663/b2a77c49-cc42-4ffe-baf9-1c156500a123-master.m3u8https://video.igem.org/videos/embed/6zcQfnUok93JYQveqNjzk229460302023-01-06T17:30:48.839ZYESiGEM CommunityNOhttps://video.igem.org/w/6cNCNNLNdgCna4AzrDJof8https://video.igem.org/lazy-static/thumbnails/591255f0-a514-42ee-a42e-556fbbcbf77d.jpgAlumni Talk with Wanji LiWanji Li is a rising sophomore at WUSTL (accepted in ED2). He participated in iGEM as a member, team leader, and advisor for team BNDS from 2018 to 2021. He founded the first iGEM team in his school and led his team to win silver medals. He will be talking about how iGEM shaped him in terms of his academic competence, how iGEM impacted his university application (wrote about iGEM in his supplemental essay for WUSTL). Wanji will also be sharing his UCAS personal statement.https://static.igem.org/peertube/streaming-playlists/hls/2a239d47-0f3f-4bb2-9b77-37a2dba0330b/1a883fb5-5f40-4caa-aeb7-967f91122876-master.m3u8https://video.igem.org/videos/embed/6cNCNNLNdgCna4AzrDJof842090272023-01-06T23:00:12.724ZYESiGEM CommunityNOhttps://video.igem.org/w/aEQEn62JpK477esWzM3Vp8https://video.igem.org/lazy-static/thumbnails/c4de91c8-4e7d-4f5f-8cfc-a85d52d31f5e.jpgGet to know EduHallGet to know EduHallhttps://static.igem.org/peertube/streaming-playlists/hls/4e4e7ff8-05ec-4b34-9d4a-95dd0f43d2f1/77a73bf6-01f2-4917-9bac-3fa8f082c6bf-master.m3u8https://video.igem.org/videos/embed/aEQEn62JpK477esWzM3Vp820830382023-01-07T00:51:49.784ZYESiGEM CommunityNOhttps://video.igem.org/w/q25pbBkSQeHLe69yUe4ybmhttps://video.igem.org/lazy-static/thumbnails/dddb04a1-89cf-43ad-95b4-a2e96eb732d8.jpgWhat, Why, How - iGEM Leagues 101What, Why, How - iGEM Leagues 101https://static.igem.org/peertube/streaming-playlists/hls/c281c874-4ce9-478e-b2e8-e39d8dce1ea0/79d371f4-ccdb-4620-9bf6-4fe67f3d9611-master.m3u8https://video.igem.org/videos/embed/q25pbBkSQeHLe69yUe4ybm250012023-01-20T11:46:43.599ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/p3mGbt3SKFAtWEo72D7WXLhttps://video.igem.org/lazy-static/thumbnails/f24c74a1-d021-4500-9c5b-c88cf0748fb4.jpgHow can JOGL help iGEMers pursue their work beyond the JamboreeHow can JOGL help iGEMers pursue their work beyond the Jamboreehttps://static.igem.org/peertube/streaming-playlists/hls/ba966dd8-daae-4d8c-996c-0062b7f5829a/9c6a479a-206f-49f8-a485-43f2966ba12c-master.m3u8https://video.igem.org/videos/embed/p3mGbt3SKFAtWEo72D7WXL778002023-01-20T11:51:35.579ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/pGBK5ZPrQtmgj4GvdPdRShhttps://video.igem.org/lazy-static/thumbnails/938ef0b9-cb2e-44c8-a2ef-80781bbe4cc0.jpgScientific Discovery on Conveyor Belt: What Can Biofoundries Do for SynbioScientific Discovery on Conveyor Belt: What Can Biofoundries Do for Synbiohttps://static.igem.org/peertube/streaming-playlists/hls/bfedf7a1-2766-47b9-9675-23e6703f2ed8/ed7775be-9fdf-49f5-b2f0-1b83190fd258-master.m3u8https://video.igem.org/videos/embed/pGBK5ZPrQtmgj4GvdPdRSh1819002023-01-20T12:12:16.296ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/dMwpT2591yrXN8rfeo4Nnahttps://video.igem.org/lazy-static/thumbnails/191b6040-9d43-4a45-8119-1087a58e23c4.jpgBio Stories Synthesising new narratives about our changing relationship with the living worldBio Stories Synthesising new narratives about our changing relationship with the living worldhttps://static.igem.org/peertube/streaming-playlists/hls/6788e01d-f056-4730-9513-4598ee971d3b/0a9e1d16-2d62-4a75-b7b4-788943784313-master.m3u8https://video.igem.org/videos/embed/dMwpT2591yrXN8rfeo4Nna661012023-01-20T12:14:09.405ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/mSm5ZfK7fy4FRodfAbgzkzhttps://video.igem.org/lazy-static/thumbnails/57f1cd40-c987-43e1-85d8-dda3f7c435fa.jpgCommunication & Creativity: Thinking outside the boxCommunication & Creativity: Thinking outside the boxhttps://static.igem.org/peertube/streaming-playlists/hls/a8fe5712-a055-4084-bf34-25760f6ab9cb/6aace8d9-623f-4200-b3dd-20ada6be2b4c-master.m3u8https://video.igem.org/videos/embed/mSm5ZfK7fy4FRodfAbgzkz1330012023-01-20T12:18:40.420ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/2fgywP2CYjPWVKCj2MNSD1https://video.igem.org/lazy-static/thumbnails/48808945-8b72-4e4a-b6c9-10135def054a.jpgGrowing with iGEMGrowing with iGEMhttps://static.igem.org/peertube/streaming-playlists/hls/0a172424-0a7e-4c2e-baf2-c3990b93b58a/5ea602b9-ad1b-4684-a8ef-9b922d3fff74-master.m3u8https://video.igem.org/videos/embed/2fgywP2CYjPWVKCj2MNSD1792092023-01-20T12:20:54.576ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/3tCYMXFuTUpBhYkZUz4sgrhttps://video.igem.org/lazy-static/thumbnails/ea6837f6-d559-477c-bb3d-1d70d04f81e4.jpgiGEM as a model system for the Science od Science and InovationiGEM as a model system for the Science od Science and Inovationhttps://static.igem.org/peertube/streaming-playlists/hls/140e25f9-8cf2-433e-97dc-9fdbb73522ef/dc051289-7712-4978-84d2-0c2ae3e009ef-master.m3u8https://video.igem.org/videos/embed/3tCYMXFuTUpBhYkZUz4sgr844002023-01-20T13:08:30.812ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/vyXc8toLx4VuyUdFgg7jj7https://video.igem.org/lazy-static/thumbnails/7462ddc2-96be-4b59-93f8-5c804415f086.jpgiGEM PIs: The Essential Group Training the Future Driving Fource of SynbioiGEM PIs: The Essential Group Training the Future Driving Fource of Synbiohttps://static.igem.org/peertube/streaming-playlists/hls/ef72d5c1-6203-44ae-adbd-a0b53aa4a3a2/22baabac-8d6f-4446-88d8-669803916cdb-master.m3u8https://video.igem.org/videos/embed/vyXc8toLx4VuyUdFgg7jj71299022023-01-20T13:12:54.833ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/hdLUNcVpVTLVSg7oWLSL6Ghttps://video.igem.org/lazy-static/thumbnails/84b699d3-4f60-45e9-a060-f8fbae94e97a.jpgLevel up your human practices!Level up your human practices!https://static.igem.org/peertube/streaming-playlists/hls/835ad21c-8373-4bca-a679-7e41594e1d4a/4a6f6276-7fae-48a6-a5e6-cf05ac400f90-master.m3u8https://video.igem.org/videos/embed/hdLUNcVpVTLVSg7oWLSL6G280002023-01-20T13:13:35.157ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/jKGLURjs1wRZnDqbkTweiUhttps://video.igem.org/lazy-static/thumbnails/ca6394dd-44a8-423b-a362-21e99b16d03f.jpgManaging risks from moving biotechnology around the worldManaging risks from moving biotechnology around the worldhttps://static.igem.org/peertube/streaming-playlists/hls/97de9b27-06c1-402c-9225-b1df3d7cc222/fa8a728d-aa91-4712-96d0-dbe4ffd26e95-master.m3u8https://video.igem.org/videos/embed/jKGLURjs1wRZnDqbkTweiU573002023-01-20T13:15:21.079ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/sP3vpgthK9hUN1wuv8c1Xmhttps://video.igem.org/lazy-static/thumbnails/fcc9fe2c-f363-4344-a949-942c8a471392.jpgBuilding Bridges: Connecting Synbio Communities WorldwideBuilding Bridges: Connecting Synbio Communities Worldwidehttps://static.igem.org/peertube/streaming-playlists/hls/d91f1b77-7a2e-4b3c-9bdd-08c22c0f60d2/eae96c5f-a9ef-4c7f-9b46-7b6c1c57b300-master.m3u8https://video.igem.org/videos/embed/sP3vpgthK9hUN1wuv8c1Xm188022023-01-20T13:15:53.816ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/mj2bWn2EahNtypkd4fLwqdhttps://video.igem.org/lazy-static/thumbnails/21f95653-1f96-4cf5-92f1-35fbbf147f4d.jpgFinding the right tools for your syntheticbiology worldflowFinding the right tools for your syntheticbiology worldflowhttps://static.igem.org/peertube/streaming-playlists/hls/a47ae4bf-5481-4a51-8f9d-1520b2a9ebd4/b88adf4c-6487-4fbc-bf4f-86677085cd0e-master.m3u8https://video.igem.org/videos/embed/mj2bWn2EahNtypkd4fLwqd1251022023-01-20T13:19:43.642ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/qWgiW9CWsGMAQQz76fDxSkhttps://video.igem.org/lazy-static/thumbnails/d191a1ce-5519-4612-9acf-68da431d3c1a.jpgFrom Easy Doe to Custom Design: Industry-Standard experimentational for Synthetic BiologyFrom Easy Doe to Custom Design: Industry-Standard experimentational for Synthetic Biologyhttps://static.igem.org/peertube/streaming-playlists/hls/c9eeed11-93fd-4210-b049-92299cfb4d8b/f61bfbff-9841-4203-8b0e-0077f33b625e-master.m3u8https://video.igem.org/videos/embed/qWgiW9CWsGMAQQz76fDxSk905032023-01-20T13:22:19.643ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/5zt1XHr6pnBYbu2mUKLhYMhttps://video.igem.org/lazy-static/thumbnails/7261c07c-c678-4b83-b13b-95f65e9f6406.jpgFunctional Synthetic BiologyFunctional Synthetic Biologyhttps://static.igem.org/peertube/streaming-playlists/hls/2510bfa4-1b38-428e-ad2f-a65ca032a3ad/1fd7630f-0e96-4cb0-b826-e9b463fd90b3-master.m3u8https://video.igem.org/videos/embed/5zt1XHr6pnBYbu2mUKLhYM8520112023-01-20T13:24:49.996ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/2XqJPWG2g9TgjJrenJWwu7https://video.igem.org/lazy-static/thumbnails/188768f8-65a8-4fb7-8f49-72c9ce4c6eb3.jpgiGEM DistributioniGEM Distributionhttps://static.igem.org/peertube/streaming-playlists/hls/0fd64aa5-4502-40d1-b3a5-a99d61ec6986/946d6302-5605-431d-9f8d-acf811911445-master.m3u8https://video.igem.org/videos/embed/2XqJPWG2g9TgjJrenJWwu7774022023-01-20T13:27:05.157ZYES2022 Grand JamboreeNOhttps://video.igem.org/w/aGjivipyVgHXiQfQzFmU8Ahttps://video.igem.org/lazy-static/thumbnails/ba203ce5-18a0-4418-9b65-cbdd61e77dcf.jpgIWBDA 2022 HighlightsIWBDA 2022 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The course equips scientists with the essential skills in writing, presenting, social media, illustration, and best practices needed to realize the full potential of their research and make advances at the intersection of science and society. Learn more: https://community.igem.org/projects/mastering-science-communicationhttps://static.igem.org/peertube/streaming-playlists/hls/5a1f03f6-7bc4-4056-af2d-6aa4fbb44c75/48affb20-183c-4f20-a7cc-bd8591b4b8de-master.m3u8https://video.igem.org/videos/embed/c8sqxoWw1sAU7b2xZhRuwR1200512023-02-12T22:49:34.282ZEducationScience CommunicationYESiGEM CommunityNOhttps://video.igem.org/w/7GRwg1rSywX6RjfgFP4Fhehttps://video.igem.org/lazy-static/thumbnails/74bce805-587e-494c-98db-34ad1d11b636.jpgThe BioArt HubThe BioArt Hub aims to build and get together the community to fill the gaps between the science and creativity communities. This is a digital platform that has the objective to facilitate communication, make new connections, exchange ideas, democratize and standardize collaborations, a place where people can share their interest in working with another’s. Learn more: https://community.igem.org/projects/bioart-hubhttps://static.igem.org/peertube/streaming-playlists/hls/364b1a02-08b2-4748-9e8b-3011c894ccb1/cec4fa41-17dd-4ab4-abc1-554e692ec8f9-master.m3u8https://video.igem.org/videos/embed/7GRwg1rSywX6RjfgFP4Fhe1200252023-02-12T22:48:48.597ZAcademia And ResearchScience CommunicationBioArtYESiGEM CommunityNOhttps://video.igem.org/w/9XGDpbJ1DEZBWLMhzZEUEShttps://video.igem.org/lazy-static/thumbnails/561ec7f0-c98c-4bd4-9c53-df2a75f4c68d.jpgiGEM Arts GalleryThe iGEM Arts Gallery (Hope By Nature) aims to build an annual bioart exhibition to show projects from people around the world (virtual and in-person). We want to promote new and well-established artists and their creations as a manifest, which impacts a specific social-cultural theme integrating synbio. Learn more: https://community.igem.org/projects/igem-arts-galleryhttps://static.igem.org/peertube/streaming-playlists/hls/4890109c-c519-4b7a-8879-45d599aee0be/72e38ab7-fbf9-4b9d-a5c3-54cb151bc0e7-master.m3u8https://video.igem.org/videos/embed/9XGDpbJ1DEZBWLMhzZEUES1210242023-02-12T22:47:54.594ZBioArtYESiGEM CommunityNOhttps://video.igem.org/w/466cppT1YcbTDY85xySuhBhttps://video.igem.org/lazy-static/thumbnails/5130347d-cedf-4870-aba6-6496fc51ec28.jpgBuilding Inclusive Tech (Workshop For High Schoolers)Building Inclusive Tech is a local education project, where high school students in select areas are invited to STEM related talks, workshops with presentation of past iGEM projects and even creating their own final iGEM project. The aim is to create a network of iGEM Alumni who can participate in these events as attendees and mentors. The priority of participants should be given to students from under-represented communities, LGBTI+ and female students. Learn more: https://community.igem.org/projects/building-inclusive-techhttps://static.igem.org/peertube/streaming-playlists/hls/1901565d-104d-45b0-a504-a8f482abf863/54fa5d82-a293-4661-b0fe-4650901ebeb2-master.m3u8https://video.igem.org/videos/embed/466cppT1YcbTDY85xySuhB91062023-02-12T22:47:06.514ZEducationWomen In STEMYESiGEM CommunityNOhttps://video.igem.org/w/cXxdtPVsbM5EGwYK4dHpEUhttps://video.igem.org/lazy-static/thumbnails/36615c1f-59bc-412d-b472-b455a8cca28b.jpgPolicy ResearchMembers from the community interested in Governance and Policy are conducting independent research into policy topics related to synthetic biology. This activity aims to produce a series of white papers and aims to encourage the iGEM community to participate in public policy discussions. Currently, community members are focusing on developing whitepaper on key governance and policy issues related to synthetic biology, such as: intellectual property, government subsidies for bio-economy analysis of the news highlights with commentary biosecurity news and ethical considerations. Learn more: https://community.igem.org/projects/policy-research/https://static.igem.org/peertube/streaming-playlists/hls/60d5ab6d-953f-4693-92c4-3785acf5b3d4/4ec35d96-e53e-4cf1-b211-2a118692d596-master.m3u8https://video.igem.org/videos/embed/cXxdtPVsbM5EGwYK4dHpEU74082023-02-12T22:46:15.293ZScience CommunicationGovernance And Policy YESiGEM CommunityNOhttps://video.igem.org/w/diXytAQ4KagZxSUXY4KeEChttps://video.igem.org/lazy-static/thumbnails/80d71bf8-b4a5-4676-9a20-e3b9067b8749.jpgSynBio Without BordersSynBio Without Borders is a collaborative project between the iGEM Community and Lecturers Without Borders aimed at inspiring the next generation of scientists by connecting synthetic biologists with educators and making science more accessible and engaging for young students. Join us in our mission to inspire the next generation of scientists and make science accessible for all. Learn more: https://community.igem.org/projects/synbio-without-bordershttps://static.igem.org/peertube/streaming-playlists/hls/63af8c4b-dcb0-456b-b681-5a7830cc983c/e2baf805-674f-486f-817e-36e5e9f2eca2-master.m3u8https://video.igem.org/videos/embed/diXytAQ4KagZxSUXY4KeEC570172023-02-12T22:42:19.925ZScience CommunicationWomen In STEMBioArtOpen Science And Accessibility EducationYESiGEM CommunityNOhttps://video.igem.org/w/iZgJuZ7ugE9dQ5vMcGJmaRhttps://video.igem.org/lazy-static/thumbnails/769ef1c8-04c9-41f2-8c0d-3cad478f28ea.jpgGrand Competition GuidebookThe Grand Competition Guidebook strives to establish a collection of concise resources that will help in navigating the establishment of an iGEM team at an institution. The most important resource is a “guidebook” that incorporates all important deadlines, financial commitments, and answers to the most asked questions regarding entry rules. Learn more: https://community.igem.org/projects/grand-competition-handbookhttps://static.igem.org/peertube/streaming-playlists/hls/91aa72a0-a93e-44f0-997e-340a74b289bb/3c9387b3-3a45-4964-9d46-fc8c947c43f9-master.m3u8https://video.igem.org/videos/embed/iZgJuZ7ugE9dQ5vMcGJmaR800282023-02-12T22:42:02.270ZOpen Science and AccessibilityEducationScience CommunicationYESiGEM CommunityNOhttps://video.igem.org/w/6Z8BLwyzQvW9dJrjGPf58Ahttps://video.igem.org/lazy-static/thumbnails/6ceb4d3c-434b-48d7-a919-006d562c5baa.jpgHigh School SynBio SummitHigh School SynBio Summit aims to revitalize synthetic biology in high school by incorporating iGEM teams, iGEM alumni, and the general public through collaborative projects. Learn more: https://community.igem.org/projects/high-school-synbio-summithttps://static.igem.org/peertube/streaming-playlists/hls/3077c83a-3c04-4b77-984c-46242ae02468/962b9db0-7f40-4589-a0dc-94547ab9af28-master.m3u8https://video.igem.org/videos/embed/6Z8BLwyzQvW9dJrjGPf58A1200172023-02-12T22:41:45.887ZScience CommunicationOpen Science And AccessibilityEducationAcademia and ResearchYESiGEM CommunityNOhttps://video.igem.org/w/ixbhtst8HtukHuJuxJcp7Phttps://video.igem.org/lazy-static/thumbnails/61924913-9a04-4b90-8ced-54331f84dfdb.jpgSynBio 101 - iGEM CommunitySynBio 101 brings synthetic biology to the scientists of tomorrow through frugal DIY kits, 3D lessons, and modules, and free interactive videos, aiming to expose younger audiences to this novel field at an earlier age. Learn more: https://community.igem.org/projects/synbio-101https://static.igem.org/peertube/streaming-playlists/hls/8e05c078-e527-401f-979c-0afe27813c7f/b34707e9-634d-4668-9da1-c9ce7c2eee76-master.m3u8https://video.igem.org/videos/embed/ixbhtst8HtukHuJuxJcp7P1120592023-02-12T22:40:36.764ZOpen Science And AccessibilityEducationScience CommunicationYESiGEM CommunityNOhttps://video.igem.org/w/pyhMeuy8N3R8DRhvR7UQ5shttps://video.igem.org/lazy-static/thumbnails/82aec4b9-8580-47f0-9ad5-2fe98ae2b66b.jpgBridgeBio: Empowering SynBio Business EnthusiastsBridgeBio aims to foster innovation, awareness and collaboration in the synthetic biology business ecosystem, as well as create a supportive and inclusive community to bridge the gap between industry, academia and stakeholders. Learn more: https://community.igem.org/projects/bridgebiohttps://static.igem.org/peertube/streaming-playlists/hls/bec454ae-3f95-4281-be16-433623f4ce22/48ccc44a-6d11-4ec3-a041-21c6858365b3-master.m3u8https://video.igem.org/videos/embed/pyhMeuy8N3R8DRhvR7UQ5s1170302023-02-12T22:39:19.671ZWomen In STEMAcademia And ResearchOpen Science And AccessibilityEducationIndustryYESiGEM CommunityNOhttps://video.igem.org/w/ansrTGDerwjyWKqA5JTHBVhttps://video.igem.org/lazy-static/thumbnails/99e28995-0a83-4e84-8d7c-6e2303398fa0.jpgBeyond The Cycle - iGEM CommunityBeyond the Cycle aims to trace the iGEM Project beyond the competition and identify the challenges often faced by iGEMer while continuing them after the competition is over. We envision supporting the projects by providing them with resources and mentorship. Learn more: https://community.igem.org/projects/beyond-the-cyclehttps://static.igem.org/peertube/streaming-playlists/hls/4be12a50-1e82-4213-8e45-2f66356c9b7f/37eb1254-ae0b-4a71-ac4f-21af8c89e025-master.m3u8https://video.igem.org/videos/embed/ansrTGDerwjyWKqA5JTHBV890122023-02-12T22:33:06.757ZAcademia And ResearchYESiGEM CommunityNOhttps://video.igem.org/w/aMtmahCpNn6AhC2pYfHAEXhttps://video.igem.org/lazy-static/thumbnails/6bafae88-3edd-4b96-bb0d-3fa5925a1a0d.jpgSciComm Made Easy - iGEM CommunitySciComm Made Easy is a content series that explores science outside of the lab and its importance in facing the upcoming sustainability challenges. We aim to effectively curate relevant resources such as videos, reading material, articles, and podcasts to boost the understanding of Science Communication methods and their importance. Learn more: https://community.igem.org/projects/scicomm-made-easyhttps://static.igem.org/peertube/streaming-playlists/hls/4f3b9236-3a17-4f82-88aa-da6bfbc3c823/fb427ef0-8b13-4df5-b80d-281a4659daf4-master.m3u8https://video.igem.org/videos/embed/aMtmahCpNn6AhC2pYfHAEX1220302023-02-12T22:32:54.109ZEducationOpen Science And AccessibilityIndustryScience CommunicationYESiGEM CommunityNOhttps://video.igem.org/w/1sbSjnmg9h6Z2WEQ25Hdyfhttps://video.igem.org/lazy-static/thumbnails/7b30b68c-87b5-4fcb-bd12-4b131c7ed0c8.jpgWork In ProgressA peer support network for people doing science. A safe space where anyone can turn to when they need someone to talk. We want your voice -your journey with mental health during and after the iGEM experience - to be heard. Story sharing has the power to influence and inspire people and such an initiative will not only encourage conversation about the necessity of mental health and balance in research but also will serve as a way to bring people closer together by sharing universal human experiences. Learn more: https://community.igem.org/projects/work-in-progresshttps://static.igem.org/peertube/streaming-playlists/hls/03a8090e-311f-4deb-bf67-4acf76399646/e0aa60c2-5276-4d2a-b7bb-9fb90122b6d0-master.m3u8https://video.igem.org/videos/embed/1sbSjnmg9h6Z2WEQ25Hdyf1100102023-02-12T22:32:40.148ZEducationOpen Science And AccessibilityMental HealthYESiGEM CommunityNOhttps://video.igem.org/w/cYKSWwuQypCQP6RVdk8xkjhttps://video.igem.org/lazy-static/thumbnails/c5265e77-9cb9-4f00-874f-edf1dfd1bc46.jpgBeyond NumbersStrong scientific foundations, good experimental design, reproducibility, meaningful and understandable data are the cornerstones of any good iGEM project and the scientific community as a whole. Beyond Numbers will help you take your research and research skills to the next level. Learn more: https://community.igem.org/projects/beyond-numbershttps://static.igem.org/peertube/streaming-playlists/hls/610137a2-e33f-427d-bdd7-efd571ceb744/0f5bcfc2-1ac8-4267-a58c-694175441155-master.m3u8https://video.igem.org/videos/embed/cYKSWwuQypCQP6RVdk8xkj900142023-02-12T21:54:14.326ZAcademia And ResearchYESiGEM CommunityNOhttps://video.igem.org/w/gxS1QVZBGPJo1EhiJf3cFVhttps://video.igem.org/lazy-static/thumbnails/72f9a316-0fcb-4b8c-8822-51662d45f0dd.jpgiGEMers Governance And Policy (GAP) NewsletterThe project aims to be a space to promote synbio and biotech governance and policy news, reflections, and overviews from iGEMers and synbio enthusiasts. The newsletter will provide the community access to the current policies related to synbio hot topics as well as proposals, and positions on scientific policies, regulations, and diplomacy. Learn more: https://community.igem.org/projects/igemers-gap-newsletterhttps://static.igem.org/peertube/streaming-playlists/hls/7debf596-8f6b-4db5-b8e7-b3cebc11c147/9a70443e-3c65-4a66-934d-fc91e0a813e4-master.m3u8https://video.igem.org/videos/embed/gxS1QVZBGPJo1EhiJf3cFV820102023-02-12T21:54:04.811ZScience CommunicationOpen Science And AccessibilityGovernance And PolicyYESiGEM CommunityNOhttps://video.igem.org/w/4UFAfXVVSJw9NRKFqCgKaYhttps://video.igem.org/lazy-static/thumbnails/fde0951d-1ad9-4f53-879a-f2a2cf8134ca.jpgLens On Labs 2.0 - SynBio Research TalksLens on Labs 2.0 is an all-encompassing kickstarter to synthetic biology and its unending prospects. With iGEM competition track-based symposiums, it aims to build knowledge around synbio-based opportunities and advancements, while also providing a forum for collaborative discussions by experts in the field!. Learn more: https://community.igem.org/projects/lens-on-labs/https://static.igem.org/peertube/streaming-playlists/hls/1fa67d99-ceaa-4a00-a42f-3f1136a3e126/e5efb3fa-ec3a-4321-a206-c1ba119efd84-master.m3u8https://video.igem.org/videos/embed/4UFAfXVVSJw9NRKFqCgKaY690242023-02-12T21:53:54.752ZEducationOpen Science And AccessibilityYESiGEM CommunityNOhttps://video.igem.org/w/pUkLLgGeoqvKykJjP7FXCPhttps://video.igem.org/lazy-static/thumbnails/6f8cf365-0f4d-474f-91c1-1e44287842d0.jpgReaching Scientists and Science EnthusiastsThis video is part of the online course series “Mastering Science Communication” hosted by the Science Communication network of the iGEM Community. On the topic of Communicating to scientific audiences, Niko McCarty, founder of the Codon Magazine, and Learning & Curriculum Specialist at MIT gives a lesson on how to reach scientists, build an audience, and write and create content with a knowledgeable audience in mind.https://static.igem.org/peertube/streaming-playlists/hls/c1910ccd-9fff-4d7a-9649-dc7f7ad74e6b/ccd3ae78-86d4-499b-b640-2847ff48a3ac-master.m3u8https://video.igem.org/videos/embed/pUkLLgGeoqvKykJjP7FXCP224101792023-02-16T21:06:29.881ZTutor Video (Niko)YESiGEM CommunityNOhttps://video.igem.org/w/ac2g8fL6qPWQbYZsWRybK2https://video.igem.org/lazy-static/thumbnails/080f8631-90f5-40d8-8650-2d8ce8a71430.jpgEngineering BiosecurityEngineering Biosecurity workshops are designed to help iGEM participants understand the engineering approach to safety & security in synthetic biology. The workshops will be led by biosecurity experts and iGEM Responsibility committee. Learn More: https://community.igem.org/projects/engineering-biosecurity https://static.igem.org/peertube/streaming-playlists/hls/4a6c34d6-1203-4967-be6c-98276cbd76f7/e90ab066-5d7b-4581-a88b-729ae1d28504-master.m3u8https://video.igem.org/videos/embed/ac2g8fL6qPWQbYZsWRybK2800352023-02-17T20:59:38.009ZAcademia And ResearchGovernance And PolicyYESiGEM CommunityNOhttps://video.igem.org/w/gR9w1PBnAcVxhauooP64fXhttps://video.igem.org/lazy-static/thumbnails/deeccba8-689d-4455-a318-3c48dd31b516.jpgGirlsLabUnleash your potential in STEM with our 4-month mentorship program! You will be mentored by professionals from academia, industry, and governance on career progression, gain valuable skills, build connections, and inspire others through sharing your journey. Learn More: https://community.igem.org/projects/girlslab https://static.igem.org/peertube/streaming-playlists/hls/8055c612-4c4b-4c2a-af75-9a2947457bc7/21dd63a5-5c8d-4565-a8d5-361b2318951e-master.m3u8https://video.igem.org/videos/embed/gR9w1PBnAcVxhauooP64fX730252023-02-17T21:01:52.553ZWomen In STEMYESiGEM CommunityNOhttps://video.igem.org/w/igteeFYq6HqfwkXdXzarnvhttps://video.igem.org/lazy-static/thumbnails/7cfecc69-c276-49cc-a7b2-15c13cc7fa5f.jpgiGEM Model UNUnleash your potential as a global leader at our Model UN conference focused on the crucial issues of biological weapons and biodiversity conservation. As a delegate, you'll hone your negotiation and drafting skills while making a real impact on the world. This iGEM MUN is geared towards those who are looking to further their knowledge and skills in diplomacy and contribute to the advancement of synthetic biology governance! Learn More: https://community.igem.org/projects/igem-model-un https://static.igem.org/peertube/streaming-playlists/hls/8bd44b33-1df8-4246-b486-d67cee0100bb/04b1ad5b-7289-4a0e-b2bc-ff692a991d80-master.m3u8https://video.igem.org/videos/embed/igteeFYq6HqfwkXdXzarnv640132023-03-20T14:13:06.718ZGovernance And PolicyYESiGEM CommunityNOhttps://video.igem.org/w/iBw8baPjSP9p76sUR1Tpaohttps://video.igem.org/lazy-static/thumbnails/7bd9c988-033b-4839-a6ed-ae7756652690.jpgBoston Trip 2021 winners (Jan 2023)Boston Trip 2021 winners (Jan 2023)https://static.igem.org/peertube/streaming-playlists/hls/8ea0f41c-fcd1-4974-8556-fc5fc1a08cf4/ac6619a8-52ac-47ac-a71f-dff225b4a3a6-master.m3u8https://video.igem.org/videos/embed/iBw8baPjSP9p76sUR1Tpao1500922023-03-30T19:20:59.566ZYESiGEM Design LeagueNOhttps://video.igem.org/w/pGVDXZSbb7MuKoiqnquTWGhttps://video.igem.org/lazy-static/thumbnails/48c2d148-38c6-4ad6-93a3-39d846caa6d2.jpgDemystifying The Publication ProcessThe project aims to create an interactive guide for iGEM teams seeking to publish their research. We will create high-quality videos to show the steps of the publication process, including editing, peer review, and submission. We will also create a comprehensive handbook to provide guidance to teams on how to navigate publication. Learn more: https://community.igem.org/projects/demystifying-publication-processhttps://static.igem.org/peertube/streaming-playlists/hls/bff9017b-4efd-4cbc-87c9-13931c1bfb10/2bf8ff3f-2be9-465d-97f4-96d5459d82b4-master.m3u8https://video.igem.org/videos/embed/pGVDXZSbb7MuKoiqnquTWG810202023-04-01T12:12:40.917ZOpen Science And AccessibilityEducationAcademia And ResearchYESiGEM CommunityNOhttps://video.igem.org/w/nhY4ieMSv2Z8AGYGgvQntxhttps://video.igem.org/lazy-static/thumbnails/d47acdda-4713-4f73-88ad-fb4204cdf969.jpgiGEMx: Science Beyond BordersHow about a platform to discuss science, learning from the leaders of the field, and have fun sci-comm activities? That’s exactly what iGEMx has in store! This is an attempt to appreciate the beauty of science by enabling accessibility beyond regional barriers. It is a platform for untangling research questions, sharing iGEM experiences, inculcating scientific aptitude and for active networking. Learn more: https://community.igem.org/projects/igem-xhttps://static.igem.org/peertube/streaming-playlists/hls/ac6e5bc2-b95e-4b00-9e40-b91e855ff6e1/b49ccdec-dbff-4f60-8347-0b5a778dbbe8-master.m3u8https://video.igem.org/videos/embed/nhY4ieMSv2Z8AGYGgvQntx1320302023-04-01T12:57:01.914ZOpen Science And AccessibilityEducationScience CommunicationAcademia and ResearchYESiGEM CommunityNOhttps://video.igem.org/w/itVXDTqNKuFumXcB4m7eYthttps://video.igem.org/lazy-static/thumbnails/6c23aaa1-819d-4610-8635-67e5fe74970c.jpgBiota TalksBiota Talks is an initiative that brings together members of the African biology community to share experiences, knowledge, and insights about synthetic biology. It’s neither a series of webinars nor workshops. Instead, it takes the form of a book club where members meet regularly to discuss and explore the latest developments and advances in the field. Learn more: https://community.igem.org/projects/biota-talkshttps://static.igem.org/peertube/streaming-playlists/hls/8d91b158-8244-4e34-a187-f9b5d54b8fef/5a2f742b-b35a-4573-9790-dfaf52cfc944-master.m3u8https://video.igem.org/videos/embed/itVXDTqNKuFumXcB4m7eYt430172023-04-14T12:56:08.335Z IndustryAcademia And ResearchGovernance And PolicyOpen Science And AccessibilityEducationYESiGEM CommunityNOhttps://video.igem.org/w/psqSULuvH3J5NwdDa4NTazhttps://video.igem.org/lazy-static/thumbnails/c1e34682-f83b-42da-8a11-aab5afe4bb46.jpgSynBio Canvas - iGEM CommunityThe project aims to create a BioArt competition for synthetic biology enthusiasts everywhere! Submissions can include any form of art related to SynBio. Learn more: https://community.igem.org/projects/synbio-canvahttps://static.igem.org/peertube/streaming-playlists/hls/bdf2dbd1-32e4-4d14-a01f-6455c6c9ec97/a6b189f7-bae7-4914-b770-c956bab74155-master.m3u8https://video.igem.org/videos/embed/psqSULuvH3J5NwdDa4NTaz1070502023-04-15T13:07:56.354ZYESiGEM CommunityNOhttps://video.igem.org/w/nwYVZCy5X61zuABimNNGR3https://video.igem.org/lazy-static/thumbnails/1d80e1c3-7d42-467b-8841-70bdecd4c3d1.jpgLeading Ladies of SynBio - Launch Interview with Dr. Aoife Brennan, CEO of Synlogic Inc.The Leading Ladies of Synbio attempts to invite women leaders in the synthetic biology industry to share the current state of the industry, insights into launching products and projects, and advice for you! Join Dr. Aoife Brennan, President and CEO of Synlogic, for our first Leading Ladies of SynBio talk! Learn more about the BridgeBio project: https://community.igem.org/projects/bridgebiohttps://static.igem.org/peertube/streaming-playlists/hls/ae634f54-dc51-47f6-82d3-8a1abcb0bd0c/505abb41-0ba2-4230-a43e-8b29aa4ee1a0-master.m3u8https://video.igem.org/videos/embed/nwYVZCy5X61zuABimNNGR336920342023-05-05T13:05:38.825ZWomen In STEMIndustryYESiGEM CommunityNOhttps://video.igem.org/w/65XrcCLHJGQjQrZHDZbsKvhttps://video.igem.org/lazy-static/thumbnails/d678730d-006a-405f-96c2-c07be9e98250.jpgBeyond Numbers - Workshop 1: Experimental Design 101 with Dr Traci HaddockFor our first workshop, “Experimental Design 101”, we hosted former iGEM Director of Competition Dr Traci Haddock and current Director of Community at Asimov! She discussed the do’s and don'ts when designing your experiments, the importance and types of different controls, and how to ensure that you conduct reliable and reproducible research. Learn more about the Beyond The Numbers Project: https://community.igem.org/projects/beyond-numbershttps://static.igem.org/peertube/streaming-playlists/hls/292ed4c2-f821-4758-ac51-e926821f2583/1175bea0-a2d7-46e1-86a8-174a0d9efe41-master.m3u8https://video.igem.org/videos/embed/65XrcCLHJGQjQrZHDZbsKv30470392023-05-19T15:48:00.296ZYESiGEM CommunityNOhttps://video.igem.org/w/jAqv5eaDpkdwbEiYmWZGPLhttps://video.igem.org/lazy-static/thumbnails/c2cdb342-df5a-4f1f-87b0-a87adac9acd9.jpgAsimov - Drag & Drop Genetic Design in KernelThe Kernel Limited Beta release is now available for all iGEM 2023 teams! Kernel is Asimov’s cloud-based genetic design software tool which is being offered for the first time to iGEM teams. Learn more: https://competition.igem.org/sponsorships/asimov https://static.igem.org/peertube/streaming-playlists/hls/9692e22c-c51f-4c78-9a17-8402fe463fba/ec0752df-c440-4399-8533-ffe8c546882d-master.m3u8https://video.igem.org/videos/embed/jAqv5eaDpkdwbEiYmWZGPL3402132023-06-01T08:48:30.018ZYESiGEM CommunityNOhttps://video.igem.org/w/w6hdX3XMnmW3ABGqGLXmLshttps://video.igem.org/lazy-static/thumbnails/b451ca11-9b96-4cf0-94a7-36e9ba2b0785.jpgBeyond Numbers - Workshop 2: Reproducibility & Standardization with Dr. Kristian MüllerFor our second workshop, “Reproducibility & Standardization”, we hosted Dr. Kristian Müller, professor of cellular and molecular biotechnology at the University of Bielefeld in Germany. Reproducibility and standardization are the catalysts of the future of SynBio. Dr. Müller discussed the importance and philosophy of reproducibility and standardization, and identifying the right approaches to standardize your own research to ensure its reproducibility. Learn more about the Beyond The Numbers Project: https://community.igem.org/projects/beyond-numbershttps://static.igem.org/peertube/streaming-playlists/hls/f3aee068-2ea6-42d2-bcef-bd08a555383a/13664119-466a-4182-92b7-fa8c95942e4a-master.m3u8https://video.igem.org/videos/embed/w6hdX3XMnmW3ABGqGLXmLs38280182023-06-17T09:08:30.595ZYESiGEM CommunityNOhttps://video.igem.org/w/saS5zvo21V8pfy5QSCyV4khttps://video.igem.org/lazy-static/thumbnails/1467916c-4c81-4a8d-94a9-9c1d857ba76c.jpgBehind the Wikifreeze (2022) [English]iGEMer Fabio Maschi is now working at iGEM HQ as a Software Architect, and he talks about the Wikifreeze of 2022. In 2022 iGEM migrated to a new software architecture - from Mediawiki and local servers, to Gitlab and cloud servers. From dynamic scaling, database limit, dashboards - Fabio takes us through what went on behind the 2022 WikiFreeze. Are you interested in all of this? We are hiring developers and interns. iGEM Experience is a big plus - send us your CV/portfolio: dev@igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/d3ee294c-8d10-4ddd-bb55-574aadcbd3b5/f6160a13-573d-487e-bc23-84dece812ea7-master.m3u8https://video.igem.org/videos/embed/saS5zvo21V8pfy5QSCyV4k2480922023-06-22T13:58:18.803ZYESiGEM FoundationNOhttps://video.igem.org/w/jfqRYgCuReZS3dqMuuwjiQhttps://video.igem.org/lazy-static/thumbnails/c9ad3116-d6de-416b-95c8-feaacd9e1767.jpgLeading Ladies of SynBio - Interview with Dr. Claire Aldridge, CSO of Form Bio.The Leading Ladies of Synbio attempts to invite women leaders in the synthetic biology industry to share the current state of the industry, insights into launching products and projects, and advice for you! Join Dr. Claire Aldridge for the second session of BridgeBio Leading Ladies of SynBio series. Learn more about the BridgeBio project: https://community.igem.org/projects/bridgebiohttps://static.igem.org/peertube/streaming-playlists/hls/93c83aea-4504-442b-abb4-65738351a1c2/f412b198-c241-4f74-9211-ec206ea957c8-master.m3u8https://video.igem.org/videos/embed/jfqRYgCuReZS3dqMuuwjiQ33720162023-06-24T05:34:45.479ZYESiGEM CommunityNOhttps://video.igem.org/w/fy4txsfL2A33eUPmQgZLFphttps://video.igem.org/lazy-static/thumbnails/832879e0-91dc-4f06-9997-a599bedf2efc.jpgLens On Labs - Dr. Nico J. ClaassensLens On Labs - Dr. Nico J. Claassenshttps://static.igem.org/peertube/streaming-playlists/hls/75d9e222-bfd6-4995-a349-ba855192b875/ac788a84-68c3-4b58-ae8e-2ffd335f8ed0-master.m3u8https://video.igem.org/videos/embed/fy4txsfL2A33eUPmQgZLFp48270582023-06-29T15:15:05.130ZYESiGEM CommunityNOhttps://video.igem.org/w/maE5tkBHzyyXj5dRdHcVkfhttps://video.igem.org/lazy-static/thumbnails/93b75541-f781-4838-bf4f-1ddd8480f4c2.jpg[Podcast] SciComm Made Easy - Pilot Episode (S1E1): Demystifying Science, One Conversation at a TimeSciComm Made Easy is a podcast that explores the fascinating field of synthetic biology, while also offering insights and tips on science communication. But "SciComm Made Easy" goes beyond just the science. The podcast also focuses on how to effectively communicate complex scientific concepts to a broader audience. Whether you're a student, researcher, or science enthusiast, "SciComm Made Easy" is a great resource for learning about the cutting-edge field of synthetic biology, while also improving your science communication skills. Learn more about the project: https://community.igem.org/projects/scicomm-made-easyhttps://static.igem.org/peertube/streaming-playlists/hls/a34feed7-3a51-49ea-af6a-88d89243bbd8/7816aa8c-aa23-45f4-a7e4-47ed368741a5-master.m3u8https://video.igem.org/videos/embed/maE5tkBHzyyXj5dRdHcVkf5115182023-08-03T11:49:10.856ZYESiGEM CommunityNOhttps://video.igem.org/w/3DbdzxjV5ymHYgoNMT2mxjhttps://video.igem.org/lazy-static/thumbnails/853e4aeb-e871-48f7-9f53-7beceee3215e.jpg[Podcast] SciComm Made Easy - S1E2: Bridging the gap between science and the general public with ...Biologia360® aims to establish the Biosciences and Society network, linking scholars from several different institutions and a group of scientists/researchers, and begin discussing ways to support collaboration in Biosciences. By shedding light on the future of biological sciences, Biologia360® provides an open communication platform for active and vivid discussion of questions for innovative discoveries and progress in Biological Sciences through different scientific conferences, symposiums, seminars, webinars, and courses related to biological sciences.https://static.igem.org/peertube/streaming-playlists/hls/156317da-8185-4adc-8a90-b4425234b8e0/9d7ef17a-74db-47d2-9aea-cc05f7872b20-master.m3u8https://video.igem.org/videos/embed/3DbdzxjV5ymHYgoNMT2mxj16490212023-08-04T09:08:37.159ZYESiGEM CommunityNOhttps://video.igem.org/w/x3UgeM4mEEqD6pQjMAtipKhttps://video.igem.org/lazy-static/thumbnails/3645a635-8eb6-4f7c-8a7e-85af363ae2ce.jpgDistribution Kit (2023) [English]Distribution Kit (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/fb72fe79-970c-44e9-b5cb-977a5c8245bd/c9162423-1acc-4300-851d-1414e469be4d-master.m3u8https://video.igem.org/videos/embed/x3UgeM4mEEqD6pQjMAtipK21104642023-08-22T21:13:32.461ZYESiGEM FoundationNOhttps://video.igem.org/w/9PcfrvTaZLbdbWxhvR7eAfhttps://video.igem.org/lazy-static/thumbnails/4d79cfbc-0d76-42ea-98f7-7f1a8cd3dbb4.jpgSynthetic Biology in Space: Achievements & PossibilitiesSynthetic Biology in Space: Achievements & Possibilitieshttps://static.igem.org/peertube/streaming-playlists/hls/475fffb7-4704-48a7-959e-3a784e23e636/e8ac1422-642c-4cfc-a63d-1b908e7a4e3b-master.m3u8https://video.igem.org/videos/embed/9PcfrvTaZLbdbWxhvR7eAf590901262023-08-24T04:19:56.560ZYESiGEM WebinarsNOhttps://video.igem.org/w/dkuzoDB1gBNivWmsTbPiuHhttps://video.igem.org/lazy-static/thumbnails/e179b6ec-6014-497f-a580-c1daad393311.jpg[Podcast] SciComm Made Easy - S1E3: Explore the art of Science Writing with Niko McCartyEpisode 3 is here, and it's a must-listen! Join us on the SciComm Made Easy Podcast as we sit down with the brilliant science journalist, Niko McCarty. With years of experience in the field, Niko has enchanted readers with his captivating storytelling and ability to demystify even the most intricate scientific topics. In this episode, we'll delve into Niko's journey, from his early fascination with writing to becoming a trailblazing science communicator. Get ready to unlock the secrets of being a great science writer and learn invaluable tips to inspire and engage your audience! Don't miss this enlightening conversation! https://static.igem.org/peertube/streaming-playlists/hls/63e667ec-4ebc-4496-a201-eb7979cf653d/04311e4e-ca21-48bd-98f4-2576c7b9384e-master.m3u8https://video.igem.org/videos/embed/dkuzoDB1gBNivWmsTbPiuH44180172023-08-28T11:01:24.711ZScience CommunicationYESiGEM CommunityNOhttps://video.igem.org/w/2YdvR2fB8VSZJYxDe4XrFnhttps://video.igem.org/lazy-static/thumbnails/1092167b-2a29-401a-a444-27855a6fd454.jpgBeyond Numbers - Workshop 3: Research Integrity with Dr. Michelle Garfinkel For our third workshop, “Research Integrity”, we hosted Dr. Michelle Garfinkel the former head of the science policy programme at the [European Molecular Biology Organization (EMBO)](https://www.embo.org/)! She delved into responsible conduct of research, with a focus on practical approaches. The workshop included an overview of current thinking on research integrity with an emphasis on data visualization. In addition, she guided us through the ethical considerations that should be taken into account when presenting data.https://static.igem.org/peertube/streaming-playlists/hls/0ff2808d-823b-4909-a6ca-3a5d2073fd17/1c951b71-2b33-4e63-a5c9-523bd90d8292-master.m3u8https://video.igem.org/videos/embed/2YdvR2fB8VSZJYxDe4XrFn37530162023-08-29T20:37:54.720ZYESiGEM CommunityNOhttps://video.igem.org/w/r7gxfokaMYpRHaq18sJ921https://video.igem.org/lazy-static/thumbnails/6d69d186-2e80-41e8-81fd-2a399a08e34b.jpgThessaly: Mini video (2023)Wiki link: https://2023.igem.wiki/thessaly/home. This is iGEM Thessaly. Credits to TEDx larisa for this awesome video.https://static.igem.org/peertube/streaming-playlists/hls/cb548156-1bbd-4049-8385-9de96df609ea/03d2e7ca-a63a-4bfd-96d2-e3e95ee479fb-master.m3u8https://video.igem.org/videos/embed/r7gxfokaMYpRHaq18sJ92145012232023-09-01T14:06:06.806ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eFQBqrSjRd3qwFyoo4TZSChttps://video.igem.org/lazy-static/thumbnails/80c2f868-ba13-44ab-934f-58af507ef411.jpgZJU-China: model/7-1 (2023)Replace too large GIF file in modelhttps://static.igem.org/peertube/streaming-playlists/hls/6ed6c45b-ea42-4780-9611-a8de2c196de4/8f3f5a74-0f3a-48ad-adbb-a540462c74f9-master.m3u8https://video.igem.org/videos/embed/eFQBqrSjRd3qwFyoo4TZSC18092023-09-09T17:35:19.497ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/p4DXUaaZ5AB5DJTuj3Wwzqhttps://video.igem.org/lazy-static/thumbnails/9270e904-3745-49d8-ae1a-795487a07188.jpgABOA-Turku: MercuLess - merciless fight against mercury (2023) - Project Promotion [English]**Title:** MercuLess - merciless fight against mercury **Description:** Methylmercury is a toxic compound that bioaccumulates in organisms and causes health problems. We are fighting this with our cyanobacterium friend Synechocystis. It uses light and carbon dioxide as its energy thus it is a unique sustainable choice. To capture mercury we are expressing MerB protein that cuts the bond between methyl and mercury and MerA protein that reduces the ionic form to elemental mercury. We want to ensure clean habitats, ecological balances and safe use of fish for us all. [Wiki](https://2022.igem.wiki/aboa-turku)https://static.igem.org/peertube/streaming-playlists/hls/bac4d106-3346-46bf-b269-3b68e79b101a/00b2f021-1210-4aef-8a4f-a85aa8712dc3-master.m3u8https://video.igem.org/videos/embed/p4DXUaaZ5AB5DJTuj3Wwzq1200772023-09-10T18:10:00.276ZYES2023 Project PromotionsNOhttps://video.igem.org/w/upEkGmXTpt4U1cUQASnnkihttps://video.igem.org/lazy-static/thumbnails/55203f1e-847c-4029-aa12-ec71568be313.jpgAshesiGhana: Improved detection, clean mining and recycling of Lithium (2023) - Project Promotion...**Title:** Improved detection, clean mining and recycling of Lithium **Description:** This year, team Ashesi (Biolith) aims to use bacteria-based technologies to detect, extract, and recycle lithium sustainably and efficiently. This approach is designed to reduce the environmental impact caused by lithium extraction and promote responsible management of resources. [Wiki](https://2022.igem.wiki/ashesighana)https://static.igem.org/peertube/streaming-playlists/hls/e60d9de6-7938-4480-a246-d87b38c45afb/fb075ab7-fd43-4b4b-8494-1533b14be067-master.m3u8https://video.igem.org/videos/embed/upEkGmXTpt4U1cUQASnnki11301842023-09-10T18:16:10.045ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nGF4kQZfDdtWak4aXpDgiHhttps://video.igem.org/lazy-static/thumbnails/6b987b7a-0234-4912-8d8e-983a71fc8118.jpgAustin-UTexas: Modular Novel Microcin Secretion System against Agricultural Path... (2023) - Proj...**Title:** Modular Novel Microcin Secretion System against Agricultural Pathogens **Description:** Our project develops a method to protect crops against pathogens through the construction of a two-plasmid system that enables bacteria to secrete a class of antimicrobial peptides called microcins. Microcins are effective in killing targets selectively and are difficult to form resistance against. Our system also boasts modularity such that the microcin can be switched with another microcin targeting a different species allowing the construct to be used against different plant pathogens. [Wiki](https://2022.igem.wiki/austin-utexas)https://static.igem.org/peertube/streaming-playlists/hls/afbdbb97-29d1-4a0d-89f8-939eb4bd4777/ec0360e4-e71b-4fe1-8c20-4705a5e12f3a-master.m3u8https://video.igem.org/videos/embed/nGF4kQZfDdtWak4aXpDgiH10001452023-09-10T18:16:38.419ZYES2023 Project PromotionsNOhttps://video.igem.org/w/7W2AxjJg3Jn3atGAzotjGBhttps://video.igem.org/lazy-static/thumbnails/a707eda7-553e-4444-a7d8-7270a1064191.jpgBIT: Attention! New methods for detecting DNA. (2023) - Project Promotion [English]**Title:** Attention! New methods for detecting DNA. **Description:** Do you know? Every year, a large number of chemical reagents are produced and used in various industries after passing safety tests. Even so, certain organic substances in chemical agents can induce DNA damage and endanger human health. Current DNA damage detection methods are time-consuming and have limited accuracy, especially for low-concentration assays. Therefore, this year, team BIT chose E. coli for the construction of whole-cell biosensors, used microbial active sensing and concentration accumulation to achieve DNA damage detection of chemical reagents, and combined with microfluidic chips to build a rapid screening platform for chemical reagents. [Wiki](https://2022.igem.wiki/bit)https://static.igem.org/peertube/streaming-playlists/hls/3821fa93-7b59-440f-a37f-82ed02ed4e73/6040a844-5d3d-4fc5-989c-85dc42f2dce1-master.m3u8https://video.igem.org/videos/embed/7W2AxjJg3Jn3atGAzotjGB1200202023-09-10T18:20:10.841ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nzfii9hfFnaiYpuks4ia1ahttps://video.igem.org/lazy-static/thumbnails/bf0dbf40-0a76-4739-a2a2-286eda24c04c.jpgBJHS: RecoImmuno: Recombinant protein vaccine inquiry group (2023) - Project Promotion [English]**Title:** RecoImmuno: Recombinant protein vaccine inquiry group **Description:** This PV is about a controversy between the pals about epidemics and vaccinations. Dou is convinced that vaccination is a wise choice to protect herself and others, while Meng is skeptical. However, he gradually realizes the importance of vaccination and decides to get vaccinated to prevent future infections. The entire PV demonstrates the importance of vaccinations to the health of individuals and society by showing the efficacy of vaccinations. [Wiki](https://2022.igem.wiki/bjhs)https://static.igem.org/peertube/streaming-playlists/hls/aeb44491-b388-4f91-b940-e84e97ceac25/7a7389da-270e-48d6-a0ca-c6aee1e9b0be-master.m3u8https://video.igem.org/videos/embed/nzfii9hfFnaiYpuks4ia1a1200152023-09-10T18:40:21.085ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fUQVvjrg7Pd4kJ43mdPXTAhttps://video.igem.org/lazy-static/thumbnails/6666ad32-4553-4046-847c-8437513d41b9.jpgBZK: Probiotics in play, G-out can't stay (2023) - Project Promotion [English]**Title:** Probiotics in play, G-out can't stay **Description:** With higher risk and youth trend of suffering gout and hyperuricemia, tremendous numbers of relevant drugs are going to occur. Could probiotics serve as the Gout Firefighter? In the G-out Project, our mission is to achieve this goal. By enzyme digestion linkage and homologous recombination， we constructed engineering probiotics capable of expressing highly active urate oxidase on Nissle 1917, which we named G-01. YaGout Oral Liquid our project for public customers is developed based on G-01. [Wiki](https://2022.igem.wiki/bzk)https://static.igem.org/peertube/streaming-playlists/hls/78c0c450-126b-4fbb-8554-92c37fa39904/a16ba6fe-2def-4f61-9f4a-23a0783a1955-master.m3u8https://video.igem.org/videos/embed/fUQVvjrg7Pd4kJ43mdPXTA1110132023-09-10T18:40:50.068ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nmveWj2SVVch6j5vSgcg8Yhttps://video.igem.org/lazy-static/thumbnails/69e6dc57-91ad-4e09-9691-469ec7050aaa.jpgBZK-SH: In Vitro Screening Method of Dengue Virus Inhibitors (2023) - Project Promotion [English]**Title:** In Vitro Screening Method of Dengue Virus Inhibitors **Description:** We are the P-DENV team, and this promotional video, performed and edited by our members, focuses on what the Dengue virus is, the symptoms of infection, and detailed academic science. It carefully explains the importance and severity of the Dengue virus, and why we need to study the test kit of this virus to aid the production of drugs. At the end of the video, we share some daily tidbits about our team's experimental process. [Wiki](https://2022.igem.wiki/bzk-sh)https://static.igem.org/peertube/streaming-playlists/hls/aceccea6-3f36-4596-9b53-59ca1ab13f12/d1180a57-f853-405c-881d-7771a2594600-master.m3u8https://video.igem.org/videos/embed/nmveWj2SVVch6j5vSgcg8Y1170152023-09-10T18:41:31.259ZYES2023 Project PromotionsNOhttps://video.igem.org/w/syRJv86Bbh8PEpHjYmaDL2https://video.igem.org/lazy-static/thumbnails/837d028c-dec1-48ec-a282-cd6e2df13f4e.jpgEastCoastBioCrew: RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient ... (2023) - Proj...**Title:** RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient Runoff **Description:** Modern agricultural practices rely heavily on phosphate fertilizers. However, due to the tendency of phosphate to bond with minerals in the soil, most phosphate molecules exist in a form unusable to plants. These mineral phosphates are a driving force behind nutrient pollution and runoff in waterways all across the world. RhizeUP aims to engineer Rhizobium bacteria–a nutrient-fixing soil bacteria–to increase phosphate solubility for plant uptake while removing excess phosphate from the soil. [Wiki](https://2022.igem.wiki/eastcoastbiocrew)https://static.igem.org/peertube/streaming-playlists/hls/d7240e02-5dbc-442f-982d-378d959941d5/7fbf2773-6005-4a5e-a561-db7e51f68064-master.m3u8https://video.igem.org/videos/embed/syRJv86Bbh8PEpHjYmaDL21200732023-09-10T18:42:04.890ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8hPnWyMKipmo6roVEGF1gjhttps://video.igem.org/lazy-static/thumbnails/90820fb9-56ad-40e8-82a7-df169b464e8e.jpgEastCoastBioCrew: RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient R... (2023) - Pro...**Title:** RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient Runoff **Description:** Modern agricultural practices rely heavily on phosphate fertilizers. However, due to the tendency of phosphate to bond with minerals in the soil, most phosphate molecules exist in a form unusable to plants. These mineral phosphates are a driving force behind nutrient pollution and runoff in waterways all across the world. RhizeUP aims to engineer Rhizobium bacteria–a nutrient-fixing soil bacteria–to increase phosphate solubility for plant uptake while removing excess phosphate from the soil. [Wiki](https://2022.igem.wiki/eastcoastbiocrew)https://static.igem.org/peertube/streaming-playlists/hls/3b0911a0-0834-4422-bc15-3e4ba5b45510/83559668-3325-47a8-adfd-794042d6b896-master.m3u8https://video.igem.org/videos/embed/8hPnWyMKipmo6roVEGF1gj120042023-09-10T18:42:37.503ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6XeGatSYh44zCbMwSSAf2Yhttps://video.igem.org/lazy-static/thumbnails/f14082f0-22ad-4f41-93e9-6454dcd66144.jpgFujian-United: Phytase, The Magician In Food (2023) - Project Promotion [English]**Title:** Phytase, The Magician In Food **Description:** phytase is like a magician in food. When we eat food containing phytic acid, phytase can decompose these phytic acids to release the nutrients in the food. Adding phytase to pig feed can help pigs better absorb nutrients in feed and reduce phosphorus and other fertilizers in pig excreta. It not only improves the efficiency of pig raising but also contributes to the protection of the environment. [Wiki](https://2022.igem.wiki/fujian-united)https://static.igem.org/peertube/streaming-playlists/hls/303409f7-be4f-46eb-b40d-a3efdc86ea1a/4c3e6f7a-8929-4b2c-811f-07a155bc41bd-master.m3u8https://video.igem.org/videos/embed/6XeGatSYh44zCbMwSSAf2Y750132023-09-10T18:42:56.101ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jPspXJKwVNAskiHXES1chUhttps://video.igem.org/lazy-static/thumbnails/3ff66608-2e28-4866-ac7c-4698bc4b938a.jpgHKPOLYU: Polyneerab-Novel Bi-specific Antibody (2023) - Project Promotion [English]**Title:** Polyneerab-Novel Bi-specific Antibody **Description:** Non-small cell lung carcinoma (NSCLC) has emerged as the most prevalent form of lung cancer, which is often associated with various mutations in the EGFR gene. The primary treatment for NSCLC involves the use of Osimertinib. However, prolonged administration of Osimertinib can lead to acquired resistance. To address this challenge, our team is currently working on the development of a groundbreaking bi-specific antibody. It has the potential to overcome acquired resistance while reducing overall treatment costs. We appreciate your interest in our research and encourage you to stay tuned for further updates. Thank you for watching our video! [Wiki](https://2022.igem.wiki/hkpolyu)https://static.igem.org/peertube/streaming-playlists/hls/9864bb11-5b9b-43eb-89d0-33a0be039480/ae32cdfc-206c-44d1-b459-789224098ce3-master.m3u8https://video.igem.org/videos/embed/jPspXJKwVNAskiHXES1chU12002022023-09-10T18:43:40.117ZYES2023 Project PromotionsNOhttps://video.igem.org/w/cdKzi3TeYEF8AVFrcNSsA7https://video.igem.org/lazy-static/thumbnails/5925138c-fb4e-4bbc-aadc-659931b0d199.jpgHSASNU: Screening of Atherosclerosis at early stage: targeting TMAO with urine s... (2023) - Proj...**Title:** Screening of Atherosclerosis at early stage: targeting TMAO with urine samples **Description:** We endeavor to develop a new method for screening the atherosclerosis (AS) at early stage. After transforming cloned chosen genes into bacteria and construction a special cell-free testing system, the Trimethylamine oxide (TMAO) in urine, confirmed to have correlation with atherosclerosis, could be quantified. We also designed a device to test TMAO in urine, which is convenient for elderly to detect it at home, giving them a early warning and avoiding potential risk of AS. [Wiki](https://2022.igem.wiki/hsasnu)https://static.igem.org/peertube/streaming-playlists/hls/5adc4dcf-d1eb-4eb0-87f4-76ee869c92b2/baaf6109-6d35-4bac-9c07-e3c2a98f5483-master.m3u8https://video.igem.org/videos/embed/cdKzi3TeYEF8AVFrcNSsA71200122023-09-10T18:45:38.274ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eYZisNirCdQpkJHYXN13Uwhttps://video.igem.org/lazy-static/thumbnails/08f3b35e-80d2-4fb6-a81e-52ac51a8b606.jpgHUBU-HUBEI-CHINA: Seeded Player: Metabolic Engineering of B. licheniformis For E... (2023) - Proj...**Title:** Seeded Player: Metabolic Engineering of B. licheniformis For Efficient Hydroxytyrosol Production **Description:** Hydroxytyrosol (HT) is a polyphenol found in olives, known for its antioxidant and anti-inflammatory properties. However, its large-scale application is limited due to the high production costs associated with traditional plant extraction and chemical synthesis methods. Microbial production offers a promising alternative but faces challenges such as low strain tolerance, complex synthesis pathways, and oxidative degradation. In this work, we focus on establishing and optimizing the HT production pathway in Bacillus licheniformis, which exhibits high robustness. Through protein engineering of ketoacid decarboxylase, metabolic pathway optimization, and screening of limiting factors, we have enhanced microbial efficiency. Subsequently, we further refined the scale-up culture processes to boost HT yield. Leveraging synthetic biology, we aim to achieve a more cost-effective and sustainable production of hydroxytyrosol, unlocking its potential applications ranging from cardiovascular drugs to cosmetics, functional foods, and nutraceuticals. [Wiki](https://2022.igem.wiki/hubu-hubei-china)https://static.igem.org/peertube/streaming-playlists/hls/713bc448-fd06-4440-bcef-bab5345224ee/1def1c6c-e172-49e6-beba-bab20498409a-master.m3u8https://video.igem.org/videos/embed/eYZisNirCdQpkJHYXN13Uw1190162023-09-10T18:46:06.620ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6Ny39f8vydVudgT3yUxawChttps://video.igem.org/lazy-static/thumbnails/07784180-aded-4324-96bb-0234acd286fa.jpgJiangsu-United: Bones and Joints, Healthy Growing (2023) - Project Promotion [English]**Title:** Bones and Joints, Healthy Growing **Description:** We aim to experimentally verify that OGN can be used as a new target for OA therapeutic drugs and provide targets for screening drug companies to develop better OA therapeutic drugs with this target. As a validation of the research to develop new targets for better OA therapeutic drugs, our experiments are at the upstream stage of the entire drug production chain, providing pharmaceutical companies with one of the most important targets for midstream R&D. [Wiki](https://2022.igem.wiki/jiangsu-united)https://static.igem.org/peertube/streaming-playlists/hls/2efda672-4ccf-4a8f-9bfa-71886034c64c/09cb7717-c100-4fc4-84d4-f3d641b708fc-master.m3u8https://video.igem.org/videos/embed/6Ny39f8vydVudgT3yUxawC113082023-09-10T18:46:48.131ZYES2023 Project PromotionsNOhttps://video.igem.org/w/78XeKHeAAZNHXPXNvUPNAGhttps://video.igem.org/lazy-static/thumbnails/e7761071-a5fc-4f27-9b9f-b54ce2ec106f.jpgMetropolis-Shanghai: Development of anti-Alzheimer's drugs targeting α2A adrener... (2023) - Proj...**Title:** Development of anti-Alzheimer's drugs targeting α2A adrenergic receptors **Description:** Alzheimer's disease, the commonest cause of dementia, is a growing global health concern with huge implications for individuals and society. For these reasons, we set up an Alzheimer's Assistance (AAA) project in order to make a contribution to solving Alzheimer's disease. [Wiki](https://2022.igem.wiki/metropolis-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/31b31456-4cb6-4aa8-bbec-ec6c97a8160c/5761239f-104c-47f4-82f7-72ef88f80671-master.m3u8https://video.igem.org/videos/embed/78XeKHeAAZNHXPXNvUPNAG1080232023-09-10T18:47:13.591ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eB7rCsvp7a4FWUUuukvkvKhttps://video.igem.org/lazy-static/thumbnails/c8996c95-8bf5-4d0a-80b4-d9ee7b19e378.jpgNanjing-BioXstem: Yeast Dance: Tapping into Yeast's MAPK Pathway for Enhanced Co... (2023) - Proj...**Title:** Yeast Dance: Tapping into Yeast's MAPK Pathway for Enhanced Copper Detection **Description:** To achieve a biosensor with both low basal expression levels but high sensitivity, we aim to design a synthetic circuit that amplifies the signal generated by the biosensor based on the MAPK pathway of Saccharomyces cerevisiae. Firstly, the expression of α-pheromone is controlled by the promoter CUP1 in response to Cu2+, allowing fine-tuning of communication and response according to the concentration of Cu2+. Secondly, a positive feedback module is introduced to amplify the signal, increasing the sensor sensitivity and reduce the detection limit. In addition, we engineered the pheromone inducible promoter to expand its dynamic range to achieve better amplification effects. In the future, we aim to modify the CUP1 promoter to lower the basal expression level and further enhance its sensitivity. [Wiki](https://2022.igem.wiki/nanjing-bioxstem)https://static.igem.org/peertube/streaming-playlists/hls/6e2dcdf2-09b7-4ae6-a8e7-455e78ea51a1/ef1e3b0e-1837-44fa-9974-6e923983e7e5-master.m3u8https://video.igem.org/videos/embed/eB7rCsvp7a4FWUUuukvkvK1190572023-09-10T18:47:46.392ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eyRBYQCHMvoM1o1NKTdvbLhttps://video.igem.org/lazy-static/thumbnails/7c879d7f-18c5-4d58-9fc3-b12f0bf209d4.jpgNJTech-China-A: Breaking barriers: lsPETase 2.0 Vs plastic pollution (2023) - Project Promotion [...**Title:** Breaking barriers: lsPETase 2.0 Vs plastic pollution **Description:** Our project started with filter cloth and expanded to PET plastic pollution. We modified lsPETase through three forms of soluble protein expression, domain and mutation to improve the degradation rate of lsPETase. Today, plastic pollution is becoming more and more serious, and we must contribute to the fight against white pollution [Wiki](https://2022.igem.wiki/njtech-china-a)https://static.igem.org/peertube/streaming-playlists/hls/6ddd2ece-d677-447e-a90e-13c6ea23def4/31b861fa-07fa-428f-8e36-5f139d075628-master.m3u8https://video.igem.org/videos/embed/eyRBYQCHMvoM1o1NKTdvbL1200562023-09-10T18:48:36.104ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8JRCFpNAZHsPuQp8s5XBoshttps://video.igem.org/lazy-static/thumbnails/67a29f0e-c6b9-4b6b-b3ed-b8f1c5b1c43b.jpgNJTech-China-B: Attention, a greener production method for 1,5-PDO has arrived. (2023) - Project ...**Title:** Attention, a greener production method for 1,5-PDO has arrived. **Description:** Paints and coatings are widely used in various sectors of society. 1,5-pentanediol (1,5-PDO) is a typical C5 diol and an important raw material for the production of polyurethane coating and polyester coating. The market demand is constantly increasing. Currently, the industrial production method of 1,5-PDO has significant shortcomings, as it is constrained by the C5 raw material extracted from petroleum. To achieve sustainable pentanediol production, we expect to develop a microbial cell factory to directly produce 1,5-PDO from renewable biomass feedstocks via a biological process. [Wiki](https://2022.igem.wiki/njtech-china-b)https://static.igem.org/peertube/streaming-playlists/hls/3eabcbc7-b8f6-4dcb-8c97-51d9b9d9775a/99e33e86-42f1-41eb-b60d-8e5ce880d0a4-master.m3u8https://video.igem.org/videos/embed/8JRCFpNAZHsPuQp8s5XBos1180842023-09-10T18:52:11.894ZYES2023 Project PromotionsNOhttps://video.igem.org/w/sFV1fwJ1pbdzBv9THRrhwdhttps://video.igem.org/lazy-static/thumbnails/ab71840e-a5e5-47db-bfa7-0fe94b3600cf.jpgPINGHE: Cosmetic Bacterial Rapid Test Kit (2023) - Project Promotion [English]**Title:** Cosmetic Bacterial Rapid Test Kit **Description:** In the A.S.P. Project, we aim to develop a household cosmetics detection kit, especially improving the detection accuracy of Staphylococcus aureus and Pseudomonas aeruginosa. Our product is based on the technology of CRISPR. Furthermore, we are trying to develop the final product based on market usage preferences. We will constantly dig deeply into the market and promote the idea to more people. Our mission is to make beauty with no burden. [Wiki](https://2022.igem.wiki/pinghe)https://static.igem.org/peertube/streaming-playlists/hls/d82046fa-a4cc-4ac6-9a6c-68f49b58df70/a47a360e-c2eb-4cde-89e1-bb29273df1cd-master.m3u8https://video.igem.org/videos/embed/sFV1fwJ1pbdzBv9THRrhwd116092023-09-10T18:55:57.864ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pKRfdutTYSs795BceNKVzWhttps://video.igem.org/lazy-static/thumbnails/387205f9-00d9-4e01-8ba3-83f0b8d38067.jpgSCIE-PearlDelta: CSFast: CSF Rhinorrhoea Test Kit (2023) - Project Promotion [English]**Title:** CSFast: CSF Rhinorrhoea Test Kit **Description:** CSF rhinorrhoea, which its major cause is head trauma (especially in sport injuries), causes dangerous consequences such as brain infection and herniation. However, as the nasal leakage is a colourless liquid, little visible evidence can diagnose CSF rhinorrhoea. Any activities with risk of head trauma may consider a quick test on CSF rhinorrhoea important in risk evacuation or early, quick diagnosis. We provide a novel resolution on test kit design and it is revolutionary as it would be the first design that does not require use of any laboratory equipment and staffs-it can be a test at home! This way, we can reduce both time and cost in diagnosing CSF rhinorrhoea, and the test becomes applicable to wider areas. [Wiki](https://2022.igem.wiki/scie-pearldelta)https://static.igem.org/peertube/streaming-playlists/hls/c0618508-3189-4967-9328-96daddeb271c/91b33154-df7d-4c07-9147-e0f389d8037e-master.m3u8https://video.igem.org/videos/embed/pKRfdutTYSs795BceNKVzW1080152023-09-10T18:56:24.118ZYES2023 Project PromotionsNOhttps://video.igem.org/w/mo9mj4VLqrfB8SBL81SQQLhttps://video.igem.org/lazy-static/thumbnails/db0b0ed2-4934-4e07-8978-7cad35a6cac1.jpgHeidelberg: Pseudomonas Breaking Bad Plastic (2023) - Project Promotion [English]**Title:** Pseudomonas Breaking Bad Plastic **Description:** In the year 2095, a mysterious figure named Pseudomonas fluorescens enters Heidelberg's subterranean “Polymera Pub”. Ordering the daunted mixed plastic cocktail, he unveils our team's groundbreaking project: Remix, a new concept to recycle mixed-plastic waste via symbiosis of two genetically modified P. fluorescens strains to produce new valuable medical or agricultural products. Its interchangeability and adaptability allow for a sustainable recycling platform. [Wiki](https://2022.igem.wiki/heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/a50e4839-d4d9-4fa2-8746-20dc0d3c2b7c/b99bd8d1-8cb6-4148-8b9d-2b1c5d252388-master.m3u8https://video.igem.org/videos/embed/mo9mj4VLqrfB8SBL81SQQL12053482023-09-10T19:28:22.719ZYES2023 Project PromotionsNOhttps://video.igem.org/w/uhPEPNbyCdsX6kuQFQhxswhttps://video.igem.org/lazy-static/thumbnails/7d63d29a-1a79-4139-bf2d-3e821b86999c.jpgAalto-Helsinki: PET-2-Protein: Revolutionizing Plastic Recycling and Protein Pro... (2023) - Proj...**Title:** PET-2-Protein: Revolutionizing Plastic Recycling and Protein Production **Description:** In this video, we introduce Aalto-Helsinki team's groundbreaking project, PET-2-Protein! PET-2-Protein offers an alternative approach to PET plastic recycling: We turn PET plastic into protein for food or feed. Therefore, we both recycle PET and sustainably produce protein by utilizing microbes. This project hopes to alleviate plastic pollution and food security issues. [Wiki](https://2022.igem.wiki/aalto-helsinki)https://static.igem.org/peertube/streaming-playlists/hls/e51928fc-43fd-4623-922c-771b51db913e/60db1432-34e1-4b9c-9e0a-621a7910febd-master.m3u8https://video.igem.org/videos/embed/uhPEPNbyCdsX6kuQFQhxsw1190552023-09-10T21:32:56.397ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ePFNnDFzQyXYY3hNdyP2RAhttps://video.igem.org/lazy-static/thumbnails/7456fbab-4ca1-4bca-ac35-4f87151c8e79.jpgMIT: CAR-P Diem: Seize the day! (2023) - Project Promotion [English]**Title:** CAR-P Diem: Seize the day! **Description:** Cancer cachexia is a severe muscle and fat wasting disease which directly causes 30% of cancer-related deaths. The MIT iGEM team proposes CAR-P Diem: a therapy using engineered macrophages to specifically recognize and phagocytose interleukin 6, a cytokine whose overabundance causes cachexia in cancer patients. Inspired by CAR-T cell therapy, we hope CAR-P Diem can work in tandem with cancer treatment to help patients continue to fight their cancer! [Wiki](https://2022.igem.wiki/mit)https://static.igem.org/peertube/streaming-playlists/hls/6fef497f-dd98-4717-bee8-710a642ddcb8/a4000f26-68aa-48eb-9999-b1ed65719b77-master.m3u8https://video.igem.org/videos/embed/ePFNnDFzQyXYY3hNdyP2RA12001032023-09-10T21:53:32.288ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oPXZ6PKTTZpe7gBKfaXMFqhttps://video.igem.org/lazy-static/thumbnails/34223dd2-32dd-482d-941f-c2f94b8f8282.jpgShanghai-SDG: Drosophila Sentry: A visible monitoring system for heavy metal pol... (2023) - Proj...**Title:** Drosophila Sentry: A visible monitoring system for heavy metal pollution **Description:** Though heavy metal pollution has posed a serious threat to environment and human health, it cannot be detected or monitored with conventional methods in remote and underdeveloped areas due to their cost and technical requirements. We plan to genetically engineer fruit flies and then determine the concentration of heavy metals in the environment by observing the size changes of their eyes or wings, thus it will enable low-cost convenient monitoring of heavy metal pollution in these areas. [Wiki](https://2022.igem.wiki/shanghai-sdg)https://static.igem.org/peertube/streaming-playlists/hls/b8db8266-8ec6-4f7f-8b84-132b7907be6a/be71f7c8-191a-43e5-9aeb-b186dfeb1aa2-master.m3u8https://video.igem.org/videos/embed/oPXZ6PKTTZpe7gBKfaXMFq1190392023-09-11T01:35:53.287ZYES2023 Project PromotionsNOhttps://video.igem.org/w/d6uSqS1u6W8w5wKqWyBgQChttps://video.igem.org/lazy-static/thumbnails/bae071af-b980-4380-b66b-37a152408dfc.jpgBioplus-Shanghai: Cloning and Functional Analysis of Lignan Glycosyltransferase ... (2023) - Proj...**Title:** Cloning and Functional Analysis of Lignan Glycosyltransferase (UGT) - IiUGT72B2 in Isatis indigotica **Description:** In a world forever changed by the challenges of the 2019 pandemic, where adaptation to the "new normal" became imperative, the importance of study in this field emerged. While masks became indispensable, the vulnerability of our elderly to COVID-19 underscored the urgency of scientific innovation. Enter Lianhua Qingwen Capsule, a herbal marvel, proven effective in alleviating respiratory infections. But our quest extends beyond, into the realm of lignans and their antiviral potential. We unlock the secrets of UGT72B2, a catalyst for transformation in drug metabolism, and delve into the uncharted territory of lignan glycosides. [Wiki](https://2022.igem.wiki/bioplus-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/61f22c98-cc45-4b7d-a432-760f172ac4d8/61cfa53e-963b-4897-a5dc-be100df8599a-master.m3u8https://video.igem.org/videos/embed/d6uSqS1u6W8w5wKqWyBgQC1200202023-09-11T02:59:52.536ZYES2023 Project PromotionsNOhttps://video.igem.org/w/iJS1PFvxpimUKJEjsHvjEthttps://video.igem.org/lazy-static/thumbnails/69f9c410-a7f0-4a78-b4b8-55c9de7620b1.jpgSubCat-China: Construction of Saccharomyces cerevisiae Cell Factories for Autocr... (2023) - Proj...**Title:** Construction of Saccharomyces cerevisiae Cell Factories for Autocrine Amylase and Glucoamylase **Description:** Our product is a brewing yeast Which contains Saccharifying and Amylase enzyme carrier. Synthesizing a new type of baker's yeast which is able to self-produce amylase and glucoamylase. Enzymes that function to decompose starch into glucose. Starch is not able to be fermented merely by ordinary yeast used in our daily production. Glucose will be fermented into alcohol through the function of yeast. [Wiki](https://2022.igem.wiki/subcat-china)https://static.igem.org/peertube/streaming-playlists/hls/8fa76afa-d0e5-4031-9110-21412e867d17/743e9d6b-6fc4-46ce-8f7f-83f29b58bf96-master.m3u8https://video.igem.org/videos/embed/iJS1PFvxpimUKJEjsHvjEt1190192023-09-11T03:18:16.601ZYES2023 Project PromotionsNOhttps://video.igem.org/w/n3DnvKqJcqA2uVRBE2Epsfhttps://video.igem.org/lazy-static/thumbnails/7ee57044-cf04-44f5-a26c-2c9bbb834db8.jpgShanghai-city: Marvelous Journey of Levan, Unveiling the Magic of Health (2023) - Project Promoti...**Title:** Marvelous Journey of Levan, Unveiling the Magic of Health **Description:** Our company, Levan Health, specializes in creating health products using environmentally friendly materials. With a mission to enhance the production of healthcare products, we are dedicated to crafting sustainable solutions for the well-being of our customers. Through careful sourcing and innovative processes, our products not only promote personal health but also contribute to a greener future. Join us in embracing a healthier lifestyle while reducing our ecological footprint. [Wiki](https://2022.igem.wiki/shanghai-city)https://static.igem.org/peertube/streaming-playlists/hls/aa6e6e17-47b7-4610-86a6-4cee98d3572e/8976fa3c-db0b-49e8-b9a8-2c82a38189c9-master.m3u8https://video.igem.org/videos/embed/n3DnvKqJcqA2uVRBE2Epsf1180162023-09-11T05:57:04.975ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fQ855HHWFbcXwevu3k1VPvhttps://video.igem.org/lazy-static/thumbnails/e5f0171e-157e-4e95-b5f5-6eda289360da.jpgShanghaiTech-China: LAMPS (Luminous Algae Material Presenting System) (2023) - Project Promotion ...**Title:** LAMPS (Luminous Algae Material Presenting System) **Description:** Imagine a living light bulb that can glow in the dark and use sunlight as its energy source. That's what ShanghaiTech-China iGEM team have created this year. We transferred the luxCDABE gene into Synechococcus elongatus, a cyanobacterium that performs photosynthesis. At the same time, we use fusion protein technology and bioluminescence resonance energy transfer (BRET) technology to enable it to emit more intense light in the fully visible spectrum. By doing so, we enabled Synechococcus to emit light using the carbon source products of photosynthesis. At the same time, we used the intrinsic rhythm system of Synechococcus to control its luminescence, so that it can switch on and off according to the day-night cycle. It is hoped that this novel organism can become a carbon-free green lighting system in the future, with applications in biotechnology, environmental engineering and art. [Wiki](https://2022.igem.wiki/shanghaitech-china)https://static.igem.org/peertube/streaming-playlists/hls/7817ffdd-3694-45e3-bd4c-ec654163f327/5be8bd2f-1715-4d53-a45c-9a94841afd4c-master.m3u8https://video.igem.org/videos/embed/fQ855HHWFbcXwevu3k1VPv12002552023-09-11T05:59:20.136ZYES2023 Project PromotionsNOhttps://video.igem.org/w/qf1thiFNDQjPhvC9fRReTXhttps://video.igem.org/lazy-static/thumbnails/8303e470-146e-47d7-9d70-25d8417ef51f.jpgSHSID-China: E. cool-i: Temperature-based Kill Switch For Engineered Bacteria (2023) - Project Pr...**Title:** E. cool-i: Temperature-based Kill Switch For Engineered Bacteria **Description:** Our team, E. cool-i, designed and developed a plasmid kill switch test kit based on temperature to control the growth of engineering bacteria and limit environmental pollution. We conducted surveys and interviewed experts working within the field of bioengineering to understand the impact of our product. Lastly, our team set out to educate the public about microbes through offline lectures, articles, comics, and games. [Wiki](https://2022.igem.wiki/shsid-china)https://static.igem.org/peertube/streaming-playlists/hls/c45007ce-51c1-4e6f-87dd-b957deb6bc11/02c478d2-5f25-4bdf-bce2-711d2ab37187-master.m3u8https://video.igem.org/videos/embed/qf1thiFNDQjPhvC9fRReTX1190292023-09-11T06:06:36.928ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fgFGPzwgeJjLUXzUTyAhqQhttps://video.igem.org/lazy-static/thumbnails/10e42514-ffef-461c-a3b7-2d6f7fb2f7cd.jpgSubCat-HongKong: Construction of low-amine Saccharomyces cerevisiae cells (2023) - Project Promot...**Title:** Construction of low-amine Saccharomyces cerevisiae cells **Description:** Nowadays, more and more people drink red wine, but some harmful ingredients, biogenic amines, are left in fruit wines. There is now an auction for a secret red wine recipe. We have researched a new type of yeast that can reduce the harmful biogenic amines in red wine. We quietly added our yeast to the secret recipe before the auction so that we could make future red wines healthier. [Wiki](https://2022.igem.wiki/subcat-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/739090ed-919f-4659-9e93-b43bbe710090/21e486f1-6bf4-4aac-9f76-cacba4953e96-master.m3u8https://video.igem.org/videos/embed/fgFGPzwgeJjLUXzUTyAhqQ1200192023-09-11T06:11:56.134ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6TGGHtZZyQSPQVbTvA5pZZhttps://video.igem.org/lazy-static/thumbnails/aa60d5ac-059f-4717-b47f-7cc84834ce36.jpgSubCat-Peking: Blue Cancer (2023) - Project Promotion [English]**Title:** Blue Cancer **Description:** The cancer patients always think their body like a wasteland, because the high price chemotherapy either can make them cured. Sickness makes people feel numb. This film is talk about a desperate patient fell in her world and eager to release. Because of the New Blue Light Control Switch she saw the hope to survive. This technology can help cancer patients get through the medical dilemma indeed. [Wiki](https://2022.igem.wiki/subcat-peking)https://static.igem.org/peertube/streaming-playlists/hls/2fb5b584-fb2d-4773-b2f2-4e53db6f5bff/e8c40a8b-75ab-47d3-9c41-f69e717810d4-master.m3u8https://video.igem.org/videos/embed/6TGGHtZZyQSPQVbTvA5pZZ1200282023-09-11T06:16:40.473ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hRcU7Rg7GhVPih4jvG5QeDhttps://video.igem.org/lazy-static/thumbnails/a3ed9046-9d13-411d-bfbb-6f631a6ef133.jpgSubCat-Shanghai: Handy ECD: a new detection strategy for detecting pathogenic ba... (2023) - Proj...**Title:** Handy ECD: a new detection strategy for detecting pathogenic bacteria in food **Description:** A handheld bacteria detector is designed in our team to target bacteria that cause food poisoning. The bacteria include Bacillus cereus and Vibrio parahaemolyticus, which all belong to food-borne pathogenic bacteria. This promotion video means for highlights the consequence of consuming food of undetermined origin and reminds people of food safety. [Wiki](https://2022.igem.wiki/subcat-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/8870fefd-773e-4b83-983e-8470abc5be17/016aae67-930e-4847-aef0-f03a4243e78e-master.m3u8https://video.igem.org/videos/embed/hRcU7Rg7GhVPih4jvG5QeD1180132023-09-11T06:17:11.588ZYES2023 Project PromotionsNOhttps://video.igem.org/w/aCSckfSnsbWb5jxLZ438k1https://video.igem.org/lazy-static/thumbnails/2a62698f-275a-4e76-bb9d-42e66fcfd269.jpgTHINKER-CHINA: A strain engineered that provides enough myrosinase to produce su... (2023) - Proj...**Title:** A strain engineered that provides enough myrosinase to produce sulforaphane and prevents colorectal cancer **Description:** Colorectal cancer is a common malignant tumor in the gastrointestinal tract and a high incidence tumor worldwide. However, after investigation, we realised that cruciferous plants is rich in high concentrations of glucosinolate, it can be hydrolyzed by myrosinase to sulforaphane, sulforaphane has strong anticancer activity and antioxidant capacity which is good at preventing colorectal cancer. Further, we designed a system with 3 parts, broccoli, suicide and ginger and made a juicer that has a mini biological fermenter in it. Unlike juicers in the market, this juicer makes juice containing more sulforaphane. We aimed for fewer people to get colorectal cancer and to save more time and money in preventing colorectal cancer. [Wiki](https://2022.igem.wiki/thinker-china)https://static.igem.org/peertube/streaming-playlists/hls/4e07f529-4ef4-4c28-b92f-7059e3efb6ea/bbe51761-ef0f-4568-ab6f-55864f6dc106-master.m3u8https://video.igem.org/videos/embed/aCSckfSnsbWb5jxLZ438k11200172023-09-11T06:17:40.284ZYES2023 Project PromotionsNOhttps://video.igem.org/w/btTYRXS4L27xEFhKyRZH8yhttps://video.igem.org/lazy-static/thumbnails/ac725292-6cae-4d3b-b4f2-53e407113a86.jpgThinker-SC: Transgenosis E. coli produces plant hormones to promote germination ... (2023) - Proj...**Title:** Transgenosis E. coli produces plant hormones to promote germination of plant for mitigate soil erosion **Description:** Soil erosion is a problem in every arid country: the loss of water and soil can cause plants to grow too slowly or not, leading to environmental problems and food problems. Therefore, the goal of our project is to solve or mitigate the problem of soil erosion by genetically engineering E. coli. We used gene editing technology to enable E. coli to produce plant hormones (IAA) to aid plant growth and extracellular polysaccharides (EPS) to assist in the formation of biological crusts and prevent water loss. IAA is a natural hormone that can be widely used, and we hope to achieve our goal by seeding E. coli with plant seeds that can produce IAA. [Wiki](https://2022.igem.wiki/thinker-sc)https://static.igem.org/peertube/streaming-playlists/hls/54e0809f-4e40-43b9-b050-fcf06f8e7732/95a1d5bf-51a5-4a60-af7c-b6da5bf78829-master.m3u8https://video.igem.org/videos/embed/btTYRXS4L27xEFhKyRZH8y1050282023-09-11T06:18:25.457ZYES2023 Project PromotionsNOhttps://video.igem.org/w/uGZKsHFwmKSZsMRmtNuAsxhttps://video.igem.org/lazy-static/thumbnails/2db138a7-eb2a-4e8c-b31c-58562688a062.jpgThinker-Shanghai: Cardiac Protector- Degrade High Cholesterol (2023) - Project Promotion [English]**Title:** Cardiac Protector- Degrade High Cholesterol **Description:** Cholesterol, the most common factor causes cardiovascular disease, is contained a lot in some of our daily food. In order to solve the potential safety and health risks caused by high cholesterol in food, we used genetically modified E. Coli Rosetta. By adding certain genes such as IsmA gene and GalU gene, cholesterol will be either degraded or enhancing the adsorption of cholesterol by enhancing the content of EPS in E. Coli Rosetta, thereby reducing the absorption. The modified E. Coli Rosetta will reduce the content of cholesterol ingested by the human body, so as to solve the emergence of some cardiovascular diseases. [Wiki](https://2022.igem.wiki/thinker-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/e87938f9-f0a0-46bd-addf-3d535b78b66b/e35e20c7-03b3-490a-b28b-4aad94ea7152-master.m3u8https://video.igem.org/videos/embed/uGZKsHFwmKSZsMRmtNuAsx1190292023-09-11T06:19:15.779ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8Q358yNvEX7xHpVkcFY3Xchttps://video.igem.org/lazy-static/thumbnails/3c74b02e-d705-4e14-9d08-6d3ab1b77579.jpgThinker-Shenzhen: The genetic engineering expression of algin lyase was used to ... (2023) - Proj...**Title:** The genetic engineering expression of algin lyase was used to produce algin oligosaccharides **Description:** The genetic engineering expression of algin lyase was used to produce algin oligosaccharides [Wiki](https://2022.igem.wiki/thinker-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/3f64f2b0-dca6-4718-b576-2638a63ceb19/26ec990d-bc59-4784-8fec-d177c778d05b-master.m3u8https://video.igem.org/videos/embed/8Q358yNvEX7xHpVkcFY3Xc1200362023-09-11T06:20:08.177ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kH1E9eRNcs5P2ZNufHvqyhhttps://video.igem.org/lazy-static/thumbnails/0eb2cae9-87f1-452a-9880-5dbc5ba1b3ae.jpgTongji-Software: CASleuth——the virus detective agency (2023) - Project Promotion [English]**Title:** CASleuth——the virus detective agency **Description:** A virus is an infectious agent that consists of genetic material enclosed in a protein coat. It can infect a wide range of organisms, including humans, animals, plants, and bacteria. After being infected by some viruses like corona virus, humans may experience cough, fever, and even death. So instant and accurate diagnosis of viruses can help in the treatment of diseases and control the rate of virus transmission. In recent years, scientists have discovered that the CRISPR-Cas system can efficiently detect viruses. It has many advantages compared to conventional detection methods such as PCR. However, when constructing a virus detection system based on CRISPR-Cas, finding efficient gRNA sequences that target the specific virus is significant. Therefore, our project, Casleuth, was born. Cas refers to the CRISPR-Cas system while sleuth means detective. It got its name due to the function of designing gRNA, which acts as an useful arm of "detectives". Precisely, it is a gRNA design tool applied to CRISPR virus detection to recommend gRNAs that can efficiently detect the target virus and put the recommended results into the database we constructed. Our project used a deep learning framework based on convolutional neural networks to analytically compute the relationship between gRNA sequence, target sequence and gRNA activity. We hope it will provide more opportunities for large-scale population screening and wider dissemination of diagnostic technologies to control the spread of infectious diseases. [Wiki](https://2022.igem.wiki/tongji-software)https://static.igem.org/peertube/streaming-playlists/hls/9f9788cd-5b00-4212-aa5c-ca17e671a088/1c5baf2f-b1b7-4735-b1b6-0cfc338d42f0-master.m3u8https://video.igem.org/videos/embed/kH1E9eRNcs5P2ZNufHvqyh1200122023-09-11T06:20:35.271ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4EUKAsB4irsJpjxaaxGZDLhttps://video.igem.org/lazy-static/thumbnails/02a324a1-c750-4559-9902-ca72f3137401.jpgTSB-Center: Research to develop Monkeypox virus inhibitor screening method (2023) - Project Promo...**Title:** Research to develop Monkeypox virus inhibitor screening method **Description:** While the WHO no longer considers Monkeypox an international health emergency, China's situation is worrying. In July, 491 new cases were reported in mainland China, compared to 106 in June. We are K-MPOX, focusing on the 'Monkeypox Virus Inhibitor Screening Kit', dedicated to countering the impact of the Monkeypox virus. [Wiki](https://2022.igem.wiki/tsb-center)https://static.igem.org/peertube/streaming-playlists/hls/1dba3046-f19a-4fd7-96ca-8d074d4d9122/65761fa6-ad2f-492f-b3bd-b92f841802d2-master.m3u8https://video.igem.org/videos/embed/4EUKAsB4irsJpjxaaxGZDL104052023-09-11T06:21:02.852ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jmk36rhteJYfa1CLVBS7s4https://video.igem.org/lazy-static/thumbnails/4325f5f4-924f-473f-a0a2-6a5ccc782976.jpgUAlberta: FEDDS: Fungal Early Detection Drone System (2023) - Project Promotion [English]**Title:** FEDDS: Fungal Early Detection Drone System **Description:** Introducing the ground-breaking project by the University of Alberta - FEDDS (Fungal Early Detection Drone System). Fusarium graminearum, a devastating threat to crops worldwide, is finally detectable. Fungalescence, a synthetic nanobody construct, produces a red glow upon fungal detection. Paired with Agri-scan, an automated drone system, it creates a heat map accessible to farmers through a web portal. This non-intensive solution promises to revolutionize the agricultural industry. [Wiki](https://2022.igem.wiki/ualberta)https://static.igem.org/peertube/streaming-playlists/hls/949b1a4a-0d22-4fb8-9a9b-add46f0f02df/37d14f32-1398-44a8-b293-ea8f091e9022-master.m3u8https://video.igem.org/videos/embed/jmk36rhteJYfa1CLVBS7s41200172023-09-11T06:22:28.307ZYES2023 Project PromotionsNOhttps://video.igem.org/w/cQekmYmGBkXGQchgRbFwvohttps://video.igem.org/lazy-static/thumbnails/961f055d-d78e-476a-a0e5-6a76ca8b65b9.jpgWarwick: BioMonix (2023) - Project Promotion [English]**Title:** BioMonix **Description:** A microbial biomanufacturing solution for improving access to desirable monoterpenes with a focus on Limonene and Perillyl Alcohol. [Wiki](https://2022.igem.wiki/warwick)https://static.igem.org/peertube/streaming-playlists/hls/5fd07187-d0c5-4808-94d9-139295e6abf8/c1fe2ae2-9f75-47ff-9a68-b5e5a61e79fb-master.m3u8https://video.igem.org/videos/embed/cQekmYmGBkXGQchgRbFwvo1200522023-09-11T06:24:46.336ZYES2023 Project PromotionsNOhttps://video.igem.org/w/iVD3TEujY7rnPhWDzYDUfKhttps://video.igem.org/lazy-static/thumbnails/da214cea-c186-43da-a8ab-a6905df89e4b.jpgWUST-China: Plastic Killer (2023) - Project Promotion [English]**Title:** Plastic Killer **Description:** WUST-China incorporated PETase and MHETase into Rhodococcus rhodococcus PD630 to break down PET and yield ethylene glycol (EG) and terephthalic acid (TPA). Additionally, they explored various promoters, signal peptides, and enhancers to enhance the breakdown of PET plastics. At the same time, the method introduced 1,2 dioxygenase to transform degradation-generated TPA into protocatechuic acid PCA, thus enabling Rhodococcus rhodococcus to effectively use PET and accumulate microbial lipids. This allows for microbial oil production through plastic degradation, offering a potential solution to address the global energy crisis. [Wiki](https://2022.igem.wiki/wust-china)https://static.igem.org/peertube/streaming-playlists/hls/91289c1c-3357-4b86-b093-7700662bcbcf/77cc048d-8cc1-42b3-91cc-7d07004427ff-master.m3u8https://video.igem.org/videos/embed/iVD3TEujY7rnPhWDzYDUfK1210232023-09-11T06:25:14.524ZYES2023 Project PromotionsNOhttps://video.igem.org/w/npYnFHYJ7uj5Df7GnJzHrThttps://video.igem.org/lazy-static/thumbnails/33b4cb7f-6ded-4935-9e23-eb8634ad8fa1.jpgYangzhouNOFLS: Paclisa: Development of PTX-ADC Elisa Kit (2023) - Project Promotion [English]**Title:** Paclisa: Development of PTX-ADC Elisa Kit **Description:** Our product is a monoclonal antibody for the detection of PTX in combination with an ELISA for the quantitative detection of small molecule PTX levels, with the goal of effectively supporting clinical studies for the development of ADC anticancer drugs. Moreover, we hope this product can offer more treatment possibilities for hard-to-treat cancers. [Wiki](https://2022.igem.wiki/yangzhounofls)https://static.igem.org/peertube/streaming-playlists/hls/ad68c29c-deb0-4b87-8524-6eb8cb64f389/3f190c51-adaa-430c-9886-326df84aa514-master.m3u8https://video.igem.org/videos/embed/npYnFHYJ7uj5Df7GnJzHrT97072023-09-11T06:25:56.624ZYES2023 Project PromotionsNOhttps://video.igem.org/w/u8MXNUdu2bydVcE2U2G6FWhttps://video.igem.org/lazy-static/thumbnails/8c6d7d9e-7d42-406a-84af-a15fcdc4a4ad.jpgZhejiang-United: Crisprologists: Optimized High-Efficiency Genome Editing Tool b... (2023) - Proj...**Title:** Crisprologists: Optimized High-Efficiency Genome Editing Tool based on CRISPR-Cas9 System **Description:** When using CRISPR-Cas for gene editing, it is common to encounter cells that do not undergo the expected edits, thereby reducing the efficiency of CRISPR-Cas gene editing. To address this issue, we have employed a strategy of increasing the copy number of Cas9 to construct an efficient genome editing tool based on the CRISPR-Cas9 system for Nissle 1917. This approach can serve as a reference for the development of other genome editing tools. [Wiki](https://2022.igem.wiki/zhejiang-united)https://static.igem.org/peertube/streaming-playlists/hls/e3d66a01-fb92-4501-84d6-3cbbe03a84d0/59d0bd98-9d7b-4f7a-ad2d-f17237c01b6c-master.m3u8https://video.igem.org/videos/embed/u8MXNUdu2bydVcE2U2G6FW1010202023-09-11T06:26:24.814ZYES2023 Project PromotionsNOhttps://video.igem.org/w/332NcauygziH2jcbTwLk9phttps://video.igem.org/lazy-static/thumbnails/64ae9756-7dac-4132-9d18-c30cbdd943b6.jpgUBC-Vancouver: PILOT: Platformed Inteins: a Linked Orthogonal Toolkit (2023) - Project Promotion ...**Title:** PILOT: Platformed Inteins: a Linked Orthogonal Toolkit **Description:** We are excited to present PILOT - Platforms Inteins: A linked Orthogonal Toolkit a synthetic biology based tool aimed at developing an orthogonal, intein based platform for protein expression. By utilising intein protein technology, a natural self cleaving post translational modification endogenous to a subset of all domains of life, we created a modular CFPS production platform allowing simultaneous biosynthesis, extraction, and purification of proteins. By utilizing inverted inner membrane vesicles (IMVs), complemented by the use of cheap and energy dense carbon sources such as methanol, we aim to increase the efficiency of CFPS energy generation. Thus the intein mediated modularity and the creation of an optimized CFPS reaction has the potential to accelerate the research and development pipeline of biologics. [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/107adf37-bf37-43f3-add5-5cdae131eb33/30e3be67-147d-4ef1-a724-7fc34f8d42c2-master.m3u8https://video.igem.org/videos/embed/332NcauygziH2jcbTwLk9p1200552023-09-11T07:16:39.313ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gRApsNrsHFaJgwfR3xS2wShttps://video.igem.org/lazy-static/thumbnails/7a550fe1-54b1-4845-a7c0-f1e11ea0727f.jpgUBC-Vancouver: PILOT: Platformed Inteins: a Linked Orthogonal Toolkit (2023) - Project Promotion ...**Title:** PILOT: Platformed Inteins: a Linked Orthogonal Toolkit **Description:** We are excited to present PILOT - Platforms Inteins: A linked Orthogonal Toolkit a synthetic biology based tool aimed at developing an orthogonal, intein based platform for protein expression. By utilising intein protein technology, a natural self cleaving post translational modification endogenous to a subset of all domains of life, we created a modular CFPS production platform allowing simultaneous biosynthesis, extraction, and purification of proteins. By utilizing inverted inner membrane vesicles (IMVs), complemented by the use of cheap and energy dense carbon sources such as methanol, we aim to increase the efficiency of CFPS energy generation. Thus the intein mediated modularity and the creation of an optimized CFPS reaction has the potential to accelerate the research and development pipeline of biologics. [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/8065ba27-aad5-4177-a5df-6cc1f76f5962/825b10e8-f616-4f31-8da2-b0dddccb2d5f-master.m3u8https://video.igem.org/videos/embed/gRApsNrsHFaJgwfR3xS2wS117012023-09-11T07:23:49.631ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kJnBA2btp64TPLt3u5CHtvhttps://video.igem.org/lazy-static/thumbnails/794508ec-ca6a-468b-b39c-1b1d23a18887.jpgUBC-Vancouver: PILOT: Platformed Inteins: a Linked Orthogonal Toolkit (2023) - Project Promotion ...**Title:** PILOT: Platformed Inteins: a Linked Orthogonal Toolkit **Description:** We are excited to present PILOT - Platforms Inteins: A linked Orthogonal Toolkit a synthetic biology based tool aimed at developing an orthogonal, intein based platform for protein expression. By utilising intein protein technology, a natural self cleaving post translational modification endogenous to a subset of all domains of life, we created a modular CFPS production platform allowing simultaneous biosynthesis, extraction, and purification of proteins. By utilizing inverted inner membrane vesicles (IMVs), complemented by the use of cheap and energy dense carbon sources such as methanol, we aim to increase the efficiency of CFPS energy generation. Thus the intein mediated modularity and the creation of an optimized CFPS reaction has the potential to accelerate the research and development pipeline of biologics. [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/9fc83155-7519-4ab9-a557-b7336b7cce5f/72f42156-11ec-467b-b1f0-956529a467ae-master.m3u8https://video.igem.org/videos/embed/kJnBA2btp64TPLt3u5CHtv120042023-09-11T07:24:41.083ZYES2023 Project PromotionsNOhttps://video.igem.org/w/rzBU7BBGuqReu38uUzJwGyhttps://video.igem.org/lazy-static/thumbnails/6727b1d1-cc0b-43b3-a9f3-59a83b81a624.jpgNavarraBG: Biogalaxy: Plants as Biosensors (2023) - Project Promotion [English]**Title:** Biogalaxy: Plants as Biosensors **Description:** Plants have amazing and significant sensing capabilities. We proposed the use of plants themselves as sensing devices to detect different compounds or environmental conditions. Using plant promoters that are activated in the presence of high concentrations of CO2, selected by the Navarra_BG team, we have produced Arabidopsis plants capable of acting as biosensors against this metabolite. The results obtained open new possibilities for the use of plants as biosensors for other soil pollutant molecules or specific conditions. In this project, we also use Synthetic Biology to design new gene reporter constructs that facilitate the visualization of the response of the biosensor plant without the need for complex equipment. In addition, we explored the use of sequences fused to the reporter protein to control its degradation once the stimulus is terminated. [Wiki](https://2022.igem.wiki/navarrabg)https://static.igem.org/peertube/streaming-playlists/hls/cf262258-23c4-4aac-89b4-7fd968f0c008/98fcad5f-100d-48ee-9bfd-ef0903e039a8-master.m3u8https://video.igem.org/videos/embed/rzBU7BBGuqReu38uUzJwGy1200272023-09-11T07:33:29.119ZYES2023 Project PromotionsNOhttps://video.igem.org/w/vD89NnbwcHEAFVkAZ2NhA3https://video.igem.org/lazy-static/thumbnails/15ad9fc9-7620-48cc-a9c1-7b8fe88a29ef.jpgUBC-Vancouver: PILOT: Platformed Inteins: a Linked Orthogonal Toolkit (2023) - Project Promotion ...**Title:** PILOT: Platformed Inteins: a Linked Orthogonal Toolkit **Description:** We are excited to present PILOT - Platforms Inteins: A linked Orthogonal Toolkit a synthetic biology based tool aimed at developing an orthogonal, intein based platform for protein expression. By utilising intein protein technology, a natural self cleaving post translational modification endogenous to a subset of all domains of life, we created a modular CFPS production platform allowing simultaneous biosynthesis, extraction, and purification of proteins. By utilizing inverted inner membrane vesicles (IMVs), complemented by the use of cheap and energy dense carbon sources such as methanol, we aim to increase the efficiency of CFPS energy generation. Thus the intein mediated modularity and the creation of an optimized CFPS reaction has the potential to accelerate the research and development pipeline of biologics. [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/f007f2b2-1673-443a-b2cc-ac8ce199b9d6/507eb990-9123-4bdb-8c32-884587ea84fd-master.m3u8https://video.igem.org/videos/embed/vD89NnbwcHEAFVkAZ2NhA3120022023-09-11T07:41:38.167ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bEAd7k9d4Q63V2Q2u2Bsbphttps://video.igem.org/lazy-static/thumbnails/c66185f9-71f8-40dd-ba46-6b5a459e74cf.jpgUBC-Vancouver: PILOT: Platformed Inteins: a Linked Orthogonal Toolkit (2023) - Project Promotion ...**Title:** PILOT: Platformed Inteins: a Linked Orthogonal Toolkit **Description:** We are excited to present PILOT - Platforms Inteins: A linked Orthogonal Toolkit a synthetic biology based tool aimed at developing an orthogonal, intein based platform for protein expression. By utilising intein protein technology, a natural self cleaving post translational modification endogenous to a subset of all domains of life, we created a modular CFPS production platform allowing simultaneous biosynthesis, extraction, and purification of proteins. By utilizing inverted inner membrane vesicles (IMVs), complemented by the use of cheap and energy dense carbon sources such as methanol, we aim to increase the efficiency of CFPS energy generation. Thus the intein mediated modularity and the creation of an optimized CFPS reaction has the potential to accelerate the research and development pipeline of biologics. [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/565ebb55-2ec4-48c6-8c56-3694f80f074b/87f64768-6219-42fb-ac7c-7863623e3485-master.m3u8https://video.igem.org/videos/embed/bEAd7k9d4Q63V2Q2u2Bsbp120022023-09-11T07:44:28.915ZYES2023 Project PromotionsNOhttps://video.igem.org/w/b9JooZV5TMe5wnCgew8b9Thttps://video.igem.org/lazy-static/thumbnails/1b2ef108-e781-4034-954a-4598e6150f0b.jpgCJUH-JLU-China: BreFast: Breast Cancer Screening Fast (2023) - Project Promotion [English]**Title:** BreFast: Breast Cancer Screening Fast **Description:** Breast cancer is the most prevalent cancer among women, and earlier detection of breast cancer is crucial for better treatment. Therefore, CJUH-JLU-China team dedicates to create a breast cancer detection kit called BreFast to facilitate fast and painless breast cancer detection. The basic biological principal is to detect the breast-cancer-specific miRNA in serum by using the CRISPR-Cas13a system. Result will be displayed with lateral chromatography test strip. [Wiki](https://2022.igem.wiki/cjuh-jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/52337549-63e3-4fa8-874b-12c204c3de43/3ef3a6cc-173d-47b3-b811-5d6ad53adb04-master.m3u8https://video.igem.org/videos/embed/b9JooZV5TMe5wnCgew8b9T12002842023-09-11T07:51:49.618ZYES2023 Project PromotionsNOhttps://video.igem.org/w/iyHSdNgfCzpHKaxJ7XXSCbhttps://video.igem.org/lazy-static/thumbnails/ecfe631d-955a-4acd-95f2-49cff074cf35.jpgNavarraBG: Biogalaxy: Plants as Biosensors (2023) - Project Promotion [Spanish]**Title:** Biogalaxy: Plants as Biosensors **Description:** Plants have amazing and significant sensing capabilities. We proposed the use of plants themselves as sensing devices to detect different compounds or environmental conditions. Using plant promoters that are activated in the presence of high concentrations of CO2, selected by the Navarra_BG team, we have produced Arabidopsis plants capable of acting as biosensors against this metabolite. The results obtained open new possibilities for the use of plants as biosensors for other soil pollutant molecules or specific conditions. In this project, we also use Synthetic Biology to design new gene reporter constructs that facilitate the visualization of the response of the biosensor plant without the need for complex equipment. In addition, we explored the use of sequences fused to the reporter protein to control its degradation once the stimulus is terminated. [Wiki](https://2022.igem.wiki/navarrabg)https://static.igem.org/peertube/streaming-playlists/hls/8e3cf568-2e4c-4e08-867c-906422fa4702/ba4da851-6521-477b-927f-b07757572bcd-master.m3u8https://video.igem.org/videos/embed/iyHSdNgfCzpHKaxJ7XXSCb120032023-09-11T07:52:19.591ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oAXY6xVZueYFLwmLfZUYwThttps://video.igem.org/lazy-static/thumbnails/aae0202a-d7cd-4f50-9542-7d5f58879b7b.jpgTU-Eindhoven: cELPro for non-invasive, affordable treatment of IBD (2023) - Project Promotion [En...**Title:** cELPro for non-invasive, affordable treatment of IBD **Description:** Inflammatory bowel disease is a chronic inflammatory disease of the gastrointestinal tract that affects 4.9 million people worldwide. Current treatments aim at relieving the symptoms of the disease. However, those are not specific enough, cause many side effects or are very expensive. The TU-Eindhoven team wants to tackle this challenge by developing an affordable, safe, targeted microbe-based therapy that works locally in the bowel. With the use of elastin-like polypeptides, the TU-Eindhoven team modifies E. coli bacteria so that they become unable to divide by forming a hydrogel inside the cell, making them safer for ingestion. Simultaneously, they will produce the anti-inflammatory protein IL-10 to treat symptoms and reduce inflammation locally in the intestine. The product is called cELPro and will be used as a probiotic pill that patients will take regularly. In short, the TU-Eindhoven team creates micrometre-sized drug factories that relieve many problems that IBD patients experience. [Wiki](https://2022.igem.wiki/tu-eindhoven)https://static.igem.org/peertube/streaming-playlists/hls/b70ad466-b2a4-48c7-b3af-9f1c2f8eb54f/1da96d28-abe7-433b-9c65-9ce3cda450e3-master.m3u8https://video.igem.org/videos/embed/oAXY6xVZueYFLwmLfZUYwT11801922023-09-11T08:54:53.609ZYES2023 Project PromotionsNOhttps://video.igem.org/w/9brLkxHbxv7ZCWy2cbr7zKhttps://video.igem.org/lazy-static/thumbnails/66d88bb2-9047-4616-98fa-d91e07118aa9.jpgCPU-CHINA: BI-BYE: Solution of Engineering Probiotics for Colorectal Cancer (2023) - Project Prom...**Title:** BI-BYE: Solution of Engineering Probiotics for Colorectal Cancer **Description:** Colorectal cancer (CRC) ranks as the third most common cancer worldwide. Fusobacterium nucleatum (Fn) is closely linked to the onset and progression of CRC, resulting in unfavorable prognoses. This year, CPU-CHINA has devised a therapy for Fn-mediated CRC. While the majority of current research concentrates on either single cancer- or pathogen-killing approaches, our team has created an engineered Bifidobacterium longum (BL) that can achieve both simultaneously. We aspire that our approach shall prove beneficial for countless cancer patients and their families in the future. [Wiki](https://2022.igem.wiki/cpu-china)https://static.igem.org/peertube/streaming-playlists/hls/423e6cc4-98a8-48b9-bedf-dc3d08730d25/a95c2d3b-652d-4c5b-949c-b3db502c2400-master.m3u8https://video.igem.org/videos/embed/9brLkxHbxv7ZCWy2cbr7zK1190612023-09-11T11:29:00.205ZYES2023 Project PromotionsNOhttps://video.igem.org/w/x8L6dxTDxRsRzBYnsfhVwDhttps://video.igem.org/lazy-static/thumbnails/004d9657-6a2a-46cc-ad94-a31ecd2d8d3b.jpgGifu: The threat of antibiotic-resistant bacteria and proposals for solutions (2023) - Project Pr...**Title:** The threat of antibiotic-resistant bacteria and proposals for solutions **Description:** In the not-so-distant future,20XX, news of a pandemic caused by antibiotic-resistant bacteria emerged. Dr. Hiramatsu, a brilliant scientist who saw this news, traveled back in time to prevent the pandemic from occurring. As he became a university student, he approached the leader of the iGEM Gifu team he had been a part of at that time. He discussed the events that would unfold in the future. The leader proposed countermeasures against antibiotic-resistant bacteria, and together with the members of the Gifu team, they began their research journey. [Wiki](https://2022.igem.wiki/gifu)https://static.igem.org/peertube/streaming-playlists/hls/fc20ad1e-0125-400f-9611-dd7d28141b45/96535e57-8647-4eb4-bd03-3a558412c02d-master.m3u8https://video.igem.org/videos/embed/x8L6dxTDxRsRzBYnsfhVwD1200232023-09-11T11:29:29.629ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tjM9KfnKbjypJaPKir1SU6https://video.igem.org/lazy-static/thumbnails/858f667b-bf8e-40c8-8211-21a7435a5664.jpgShanghai-HS: Development of an optogenetics tool to accelerate CRY2/CIB1 switch ... (2023) - Proj...**Title:** Development of an optogenetics tool to accelerate CRY2/CIB1 switch off process for diabetes treatment **Description:** Deeply concerned about the current state of diabetic treatments, and fully aware of the daily inconvenience of diabetes patients, we, UV-DiaBEATERS, thus believe that changes have to be made. A diabetic health bracelet is initially devised on the basis of questionnaires distributed and social surveys conducted by the dry team. On top of that, the wet team carried out multiple experiments—mainly plasmid construction and yeast transformation—to prove the product’s feasibility. Ultimately, such health bracelets gratifyingly came into reality. [Wiki](https://2022.igem.wiki/shanghai-hs)https://static.igem.org/peertube/streaming-playlists/hls/dd45f4f3-869d-4406-9885-5b519beed645/173900e2-1a24-4afb-bfcb-3360756842fc-master.m3u8https://video.igem.org/videos/embed/tjM9KfnKbjypJaPKir1SU61050162023-09-11T14:03:21.073ZYES2023 Project PromotionsNOhttps://video.igem.org/w/mD1Ljon4sE6VamcYQgdAb7https://video.igem.org/lazy-static/thumbnails/0d55f779-5dcd-4757-b435-cb4767be23ed.jpgSDU-Denmark: The beginning of the end of PFAS (2023) - Project Promotion [English]**Title:** The beginning of the end of PFAS **Description:** PFAS are persistent substances found in a range of products, that over the years have ended up in water bodies and animals. These have toxic side effects. We want to optimize enzymes found to degrade PFAS to a certain extent, to create efficient bioremidiation. [Wiki](https://2022.igem.wiki/sdu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/a721c379-9f3c-44b8-b098-4e713d3ad862/8df815e7-3c24-4de2-8a00-57a8253fc60b-master.m3u8https://video.igem.org/videos/embed/mD1Ljon4sE6VamcYQgdAb712001362023-09-11T14:16:55.383ZYES2023 Project PromotionsNOhttps://video.igem.org/w/3WrewBK8Dkgnjuk9xhFdeAhttps://video.igem.org/lazy-static/thumbnails/a7f4cbba-3e1f-4d32-a63f-81ceb690deef.jpgWuhan-Hubei-China: Produce High-quality Protein and Protect Food Security (2023) - Project Promot...**Title:** Produce High-quality Protein and Protect Food Security **Description:** Our project stems from the idea of use recombinant saccharomyces  cerevisiae fermentation to produce high-protein straw feed, thereby reducing breeding costs and alleviating food crises. This video mainly introduces the reasons for choosing straw feed raw materials, and how we achieve straw reuse in three modules. [Wiki](https://2022.igem.wiki/wuhan-hubei-china)https://static.igem.org/peertube/streaming-playlists/hls/17cbfdce-c126-45e4-86a0-2633e2bb71bc/81a3dfb1-41ea-4a2f-a35e-17f2c68c4a5d-master.m3u8https://video.igem.org/videos/embed/3WrewBK8Dkgnjuk9xhFdeA1090152023-09-11T14:36:42.299ZYES2023 Project PromotionsNOhttps://video.igem.org/w/m6YrdEoQcxVd4bqvodcbfmhttps://video.igem.org/lazy-static/thumbnails/79522dee-10a2-44f5-896c-fc01773bac9b.jpgUGM-Indonesia: Human Practices (2023) [English]UGM-Indonesia: Human Practices (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/a2cc456f-5525-45ef-91ea-d64015a6d020/f6bbcf3a-31ee-4a45-b2da-0393b03339aa-master.m3u8https://video.igem.org/videos/embed/m6YrdEoQcxVd4bqvodcbfm15042023-09-11T15:43:42.338ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eVpMpeVC4fzXkoGhiSJqi2https://video.igem.org/lazy-static/thumbnails/37267d64-d1d1-4482-9b4b-501aadbfb57a.jpgCanton-HS: Anti-Norota: take the oral vaccine we made, keep your nightmares away (2023) - Project...**Title:** Anti-Norota: take the oral vaccine we made, keep your nightmares away **Description:** This is a computer game style video shot in the first person perspective that stimulates a father who worries about his children. The main concern to him is the lack of proper vaccine to treat Norovirus, one of the prevalent causes to inflammation of stomach. The increasing stress as a parent has lead to nightmare. Luckily, Anti-Norota has successfully developed an oral vaccine that target both Norovirus and Rotavirus(another prevalent stomach virus). This product is promising at keeping children safe and releasing parent from anxiety. [Wiki](https://2022.igem.wiki/canton-hs)https://static.igem.org/peertube/streaming-playlists/hls/70bbe108-f57c-46d3-8628-e5fb5a47368b/df6a3bff-dc28-4cc6-89ee-724d9947e178-master.m3u8https://video.igem.org/videos/embed/eVpMpeVC4fzXkoGhiSJqi21120102023-09-11T15:41:47.987ZYES2023 Project PromotionsNOhttps://video.igem.org/w/thi3bQwc4XMyb4abYKn4pyhttps://video.igem.org/lazy-static/thumbnails/1630e9bc-ff90-41e5-b2b6-88c2a9738074.jpgEPFL: Cadmium Catcher Probiotic (2023) - Project Promotion [English]**Title:** Cadmium Catcher Probiotic **Description:** iGEM EPFL presents 48C, a project addressing the global health threat of cadmium. Despite stricter European regulations, this toxic metal persists in soils from where it enters the food chain. Our project employs specially engineered E. coli to remove cadmium from the intestines, offering a promising solution to cadmium poisoning. Learn more at: https://2023.igem.wiki/epfl/ [Wiki](https://2022.igem.wiki/epfl)https://static.igem.org/peertube/streaming-playlists/hls/dced24dd-0c2f-40b5-a74e-7a5e182b3aba/24484208-390d-4627-a1a3-d884887ac121-master.m3u8https://video.igem.org/videos/embed/thi3bQwc4XMyb4abYKn4py1170352023-09-11T16:09:56.757ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hgoSheAWFCdrg9xryeKCxehttps://video.igem.org/lazy-static/thumbnails/a58e711f-5c43-472f-93e8-9c3341a045bf.jpgSCUT-China: ECO-SHELLS: Waste to Wealth (2023) - Project Promotion [English]**Title:** ECO-SHELLS: Waste to Wealth **Description:** When people buy seafood or make seafood products, they aim to get nutrition from those eatable and savory parts, hardly paying attention to the waste like shell of shrimps and crabs. SCUT-China wants to upgrade the usage of these biomass waste. lnstead of landfill and banishing shell waste in the ocean, we aim to develop a new strand of streptomyces to valorize the waste, producing chemicals that is beneficial to human, making good use of the fermentation broth. Our goal in this project is to explore secondary metabolic pathways in the novel streptomyces, attempting new tools for applying synthetic biology in streptomyces. Meanwhile we wish to propose an innovative recycling method for shell waste, bringing wealth from waste again. Our Project has a name and a slogan: ECO-SHELLS (Eco-friendly Conversion Of Shells into Higher value End products with Long-lasting hydrolysis based on Streptomyces), waste to wealth. [Wiki](https://2022.igem.wiki/scut-china)https://static.igem.org/peertube/streaming-playlists/hls/83b877a3-3c51-4e71-a1c7-26bcb6d1f66b/d415a276-d9b4-4eaa-80a1-e6791913fc2a-master.m3u8https://video.igem.org/videos/embed/hgoSheAWFCdrg9xryeKCxe1200422023-09-11T17:05:46.632ZYES2023 Project PromotionsNOhttps://video.igem.org/w/akZWRZy72pFmuE8ZR8qhmhhttps://video.igem.org/lazy-static/thumbnails/b636b1b0-68cc-44bf-ba53-9b19862b7e41.jpgShanghai-BioX: Starch shaper: Biosynthesis of high-purity amylopectin for high-p... (2023) - Proj...**Title:** Starch shaper: Biosynthesis of high-purity amylopectin for high-performance bioplastic **Description:** Starch-based biodegradable plastics, due to their wide-range and inexpensive raw material sources, have become one of the most important plastic alternatives. Starch is composed of amylopectin and amylose whose ratios affect the performance of starch-based bioplastics. Thus, we aim to modify the starch synthesis pathway in sweet potatoes to produce high-purity amylopectin, which can be used to adjust the content ratio of the raw starch and produce bioplastics with different properties. [Wiki](https://2022.igem.wiki/shanghai-biox)https://static.igem.org/peertube/streaming-playlists/hls/4bad170a-0789-4b5f-849a-6ab213ff2d68/841aef05-a27e-4b1e-9352-3d05f6a824b2-master.m3u8https://video.igem.org/videos/embed/akZWRZy72pFmuE8ZR8qhmh1200252023-09-12T01:40:45.046ZYES2023 Project PromotionsNOhttps://video.igem.org/w/f6ci9xQDxL7Krv7htP3TUxhttps://video.igem.org/lazy-static/thumbnails/91a6e002-92a1-4346-9832-bc3ab4d13808.jpgKCIS-Xiugang-Taipei: Brew to First Aid: An environmental-friendly answer to leather (2023) - Proj...**Title:** Brew to First Aid: An environmental-friendly answer to leather **Description:** The leather industry is very harmful to the environment. Not only does raising mass cattle for leather produce greenhouse gases, the chemicals used to process animal skin into leather can also pollute the environment. This inspired us to tackle the leather industry with a much more sustainable approach: SCOBY. SCOBY stands for symbiotic culture of bacteria and yeast. It contains lactic acid bacteria, acetic acid, bacteria, and yeast. The mixture forms bacterial cellulose membranes by tangling secreted cellulose fibrins. This membrane is also known as bacterial leather and can be used as a replacement for animal leather. However, dried SCOBY is very rigid, which makes it incapable of being turned into actual products. So we hope to over express spider-silk protein (MaSP-1 MaSP-2) by cloning it on to the upstream of cellulose binding domain (CBD) (a two cloning cycle, further detail discussed in question 14 in the safety form) in yeast and co-culture with SCOBY membrane in order to soften it for further application in leather. [Wiki](https://2022.igem.wiki/kcis-xiugang-taipei)https://static.igem.org/peertube/streaming-playlists/hls/72199f0c-1798-428c-b51b-d5f045547233/ed7ca271-100a-49aa-9868-9126bedb075b-master.m3u8https://video.igem.org/videos/embed/f6ci9xQDxL7Krv7htP3TUx11801502023-09-12T02:24:46.246ZYES2023 Project PromotionsNOhttps://video.igem.org/w/i4uevR6TJNFsCEPuKPSF9hhttps://video.igem.org/lazy-static/thumbnails/c1926d1d-e4e1-446b-b3bd-d926f1ecd0e0.jpgSZ-SHD: Intelli-P (2023) - Project Promotion [English]**Title:** Intelli-P **Description:** Phosphorus is vital for crop growth, yet its limited availability as insoluble phosphate salts in rocks necessitates resource-intensive processing into fertilizers, depleting finite reserves. Our team offers a comprehensive solution for a more sustainable future: a dual-pronged approach involving a phytosensor to detect crop phosphate requirements and a smart phosphate biofertilizer. The phytosensor, equipped with a low-phosphate-responsive promoter and a bright GFP reporter, facilitates cost-effective monitoring of phosphate levels in plants. Furthermore, we've engineered bacteria to release insoluble phosphate into the soil by producing gluconic acid in response to plant-released salicylic acid, thereby enhancing phosphate utilization. This innovation holds immense promise in addressing phosphate scarcity and revolutionizing sustainable agriculture practices. [Wiki](https://2022.igem.wiki/sz-shd)https://static.igem.org/peertube/streaming-playlists/hls/8a27fcdc-9180-4703-aa8b-27f0174a507c/2525c65d-37d1-4342-985e-33268da181af-master.m3u8https://video.igem.org/videos/embed/i4uevR6TJNFsCEPuKPSF9h11701312023-09-12T02:43:24.136ZYES2023 Project PromotionsNOhttps://video.igem.org/w/uLZCecFuiAWyQN3Mn9B1y3https://video.igem.org/lazy-static/thumbnails/35f82154-2d7e-4653-85e6-b7fc1a0f1b19.jpgSCU-BSE-China: Yeast Patronus: Yeast Engineering Aid Strengthening Talent, Polya... (2023) - Proj...**Title:** Yeast Patronus: Yeast Engineering Aid Strengthening Talent, Polyamines Assist Thermal Resistance, Offering Natural Unyielding Support **Description:** We're addressing a critical challenge in bio manufacturing: the limited stress resistance of engineered strains. By harnessing polyamines from extremophilic microorganisms, we aim to bolster the thermotolerance of these strains, which means reducing the need for energy-intensive cooling during fermentation. Our project aligns with SDG9 and the 'Dual Carbon' policy, potentially saving 3% of annual energy costs for local ethanol production, promoting responsible, low-carbon living globally. [Wiki](https://2022.igem.wiki/scu-bse-china)https://static.igem.org/peertube/streaming-playlists/hls/e9081eec-150c-4979-b55c-070df30f159a/a2ffaf50-8aab-4252-bd2e-56b74ddd99ce-master.m3u8https://video.igem.org/videos/embed/uLZCecFuiAWyQN3Mn9B1y31170352023-09-12T03:20:44.976ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2CqKdB6xv7QuAXwhnMsM7Fhttps://video.igem.org/lazy-static/thumbnails/3d04cd95-3313-4c5d-94f8-e2f48a7e5d85.jpgSCAU-China: Queen Ant's Assassin —— Effective in eliminating Solenopsis invicta ... (2023) - Proj...**Title:** Queen Ant's Assassin —— Effective in eliminating Solenopsis invicta queen using intestinal bacteria. **Description:** Solenopsis invicta(RIFA) is one of the world's most damaging invasive species, causing varying degrees of damage to agriculture, ecology, infrastructure, and health. Current control methods fall short due to incomplete eradication and environmental risks. To address these limitations, we have developed Queen Ant's Assassin (QAA): an engineered gut bacterium that allows us to efficiently eliminate Solenopsis invicta queen. This method is characterized by efficiency and safety, promising significant potential for RIFA control by governments and farmers. [Wiki](https://2022.igem.wiki/scau-china)https://static.igem.org/peertube/streaming-playlists/hls/0d2f2a02-d8c7-4bf6-b73a-7c3be430e4d7/14f5729c-88ed-45fc-9700-dcd47aac6e6b-master.m3u8https://video.igem.org/videos/embed/2CqKdB6xv7QuAXwhnMsM7F11301032023-09-12T03:24:46.347ZYES2023 Project PromotionsNOhttps://video.igem.org/w/u8VdmiXBcmy9Kq39NZkDA9https://video.igem.org/lazy-static/thumbnails/5c7ee761-52dc-4211-b42b-53fa15b624f3.jpgTSBC-SZ: Spy in Crowd (2023) - Project Promotion [English]**Title:** Spy in Crowd **Description:** SPY in Crowd is concerned about the lack of effective targeted drugs in patients with triple-negative breast cancer and combines the emerging research direction of ferroptosis to produce targeted macromolecular protein drugs to promote ferroptosis in cancer cells. This helps to address the bottleneck in the current medical approach for triple-negative breast cancer. [Wiki](https://2022.igem.wiki/tsbc-sz)https://static.igem.org/peertube/streaming-playlists/hls/e3dae1eb-df91-4c23-86ea-40a5ab254738/7882054d-7d3e-4595-9cd1-bd373ef180df-master.m3u8https://video.igem.org/videos/embed/u8VdmiXBcmy9Kq39NZkDA9119082023-09-12T03:32:04.322ZYES2023 Project PromotionsNOhttps://video.igem.org/w/qDsEzJ4WCnE5m1rfQ5WFk5https://video.igem.org/lazy-static/thumbnails/2124732d-6468-4c35-8b5a-fae700d097c8.jpgSubCat-GD: Restoring the Balance: Engineering Omega-3 Production for Optimal Health (2023) - Proj...**Title:** Restoring the Balance: Engineering Omega-3 Production for Optimal Health **Description:** Hello everyone. Our promotion video will be representing what Omega3 is, which benefits can Omega3 bring to people, what we are experimenting with with Omega3, and our progress with the experiment through three different melodramas: Family, Gymnasium, and the Laboratory. Meanwhile, we will elaborate on our content by way of a voice-over narration. [Wiki](https://2022.igem.wiki/subcat-gd)https://static.igem.org/peertube/streaming-playlists/hls/c79647c4-79e4-4ab8-8ce3-c522e656217e/2fdd2718-2b16-4846-91f5-b6d893093f92-master.m3u8https://video.igem.org/videos/embed/qDsEzJ4WCnE5m1rfQ5WFk51200112023-09-12T03:47:29.457ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6igWDqertSKDyhRzJ8toFUhttps://video.igem.org/lazy-static/thumbnails/af9bef08-854d-4373-98c0-4204613cc7a8.jpgXHD-WuHan-China: A p-cresol sensor to ensure the safety of workers (2023) - Project Promotion [En...**Title:** A p-cresol sensor to ensure the safety of workers **Description:** During the delivery process, exposure to and inhalation of p-cresol can cause harm to the skin, eyes, kidneys, respiratory system, nervous system, and even potential carcinogenic risks. In previous studies, we found that tyrosinase catalyzes its target molecules by involving molecular oxygen in two different reactions, namely, the hydroxylation of p-methylphenol to 4-methyl catechol and the oxidation of 4-methyl catechol to p-4-methyl catechol. We use tyrosinase and MBTH. The working principle of the sensor depends on the rapid conversion of 4-methyl-o-benzodiquinone (the oxidation product of tyrosinase activity) to pink complex in the presence of MBTH. The concentration of p-cresol in the environment is judged by the presence and depth of pink, so as to monitor whether the working environment is safe or not. [Wiki](https://2022.igem.wiki/xhd-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/2ae7297e-f6e2-4dc0-9200-ff014a6820ca/cbdfa0cc-f328-4627-ac86-91817f77cd61-master.m3u8https://video.igem.org/videos/embed/6igWDqertSKDyhRzJ8toFU1190122023-09-12T04:30:39.272ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hgB89zaZyQg8FLM1ZoVtQXhttps://video.igem.org/lazy-static/thumbnails/77105b42-e077-4eb5-92e3-b66535085249.jpgThinker-Guangdong: Using MICP technology-microbial cement to protect ancient bui... (2023) - Proj...**Title:** Using MICP technology-microbial cement to protect ancient buildings **Description:** Ancient buildings are "living cultural relics, living history" carrying thousands of years of history. They are the place of nostalgia and present the heritage. Since most ancient buildings in China are made of clay tiles, which is a place of nostalgia and heritage, the restoration of clay tiles is of great significance to traditional Chinese ancient buildings. But because the craft of making clay tiles began to be lost, we used microbial-induced carbonate precipitation technology to fill the cracks in the cultural relics and strengthen the cracks in the cultural relics. It also cracks the artifacts and strengthens them. And form a protective layer outside the cultural relics to prevent further damage to the cultural relics. We use urease to break down urea to produce NH3 and CO2. The alkaline environment created by NH3 allows Ca2+ to combine with carbonate to form calcium carbonate precipitation. According to the actual situation, a CspA cold-inducible promoter was added to ensure that urease can be expressed at low temperatures. Finally, we added biological polysaccharides to improve the toughness and durability of calcium carbonate precipitation. The final product is presented as a glue-like object. [Wiki](https://2022.igem.wiki/thinker-guangdong)https://static.igem.org/peertube/streaming-playlists/hls/83c00544-59ab-45d7-862e-787f7e00d6ab/f2ce5599-ef82-450e-8bb3-1695a974956e-master.m3u8https://video.igem.org/videos/embed/hgB89zaZyQg8FLM1ZoVtQX1180252023-09-12T06:05:05.465ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eoxA7PgMvcgsk8ngZy29FJhttps://video.igem.org/lazy-static/thumbnails/df9875b1-1497-4919-9d6d-f80148973303.jpgRochester: The 3D-bioprinting solution: harnessing microbes for sustainable comp... (2023) - Proj...**Title:** The 3D-bioprinting solution: harnessing microbes for sustainable compound synthesis **Description:** Every two years, Earth is losing at least one potential major plant-derived drug. Plant compound production struggles to keep pace with ever-growing demand. Our current solutions are unsustainable — now is the time to tackle efficient and ethical plant drug synthesis. In their simple but powerful parallel culture approach, Team RoSynth is revolutionizing biomanufacturing, building a 3D bioprinter capable of printing microbe-laden hydrogels for optimizing plant biomolecule production. [Wiki](https://2022.igem.wiki/rochester)https://static.igem.org/peertube/streaming-playlists/hls/6c6ca1e8-e595-4329-8163-371774c23e28/e9d9344c-5dae-48b6-8ce9-a149997fbeb2-master.m3u8https://video.igem.org/videos/embed/eoxA7PgMvcgsk8ngZy29FJ12002272023-09-12T07:01:12.866ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6WqfaCDYfsKbsQaJkSHaUXhttps://video.igem.org/lazy-static/thumbnails/94dbcc94-a763-4f00-aaed-8c7d8a5fbe0e.jpgBIBS-beijing-china: Unleashing Hope: Transforming Glioblastoma Treatment with siRNA (2023) - Proj...**Title:** Unleashing Hope: Transforming Glioblastoma Treatment with siRNA **Description:** In our video, "Unleashing Hope: Transforming Glioblastoma Treatment with siRNA," we explore the challenges posed by glioblastoma, a highly aggressive brain tumor. With dismal survival rates and limited treatment options, glioblastoma has remained a formidable adversary for patients and medical professionals alike. Our research focuses on a groundbreaking approach: the use of siRNA to silence the EIF6 gene, a key player in cancer cell energy production through glycolysis. By weakening cancer cells and enhancing their sensitivity to apatinib, a promising treatment, we aim to revolutionize glioblastoma therapy. [Wiki](https://2022.igem.wiki/bibs-beijing-china)https://static.igem.org/peertube/streaming-playlists/hls/3016cc44-d4c5-4c33-adcd-c4fb443f33ab/cad04fea-534f-4cef-8739-fa5df3ee83f3-master.m3u8https://video.igem.org/videos/embed/6WqfaCDYfsKbsQaJkSHaUX780212023-09-12T07:42:58.547ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pfzXjAzxVfwK1B1mWwxXY2https://video.igem.org/lazy-static/thumbnails/7a45638a-f18a-41fa-8e69-f193d8da39c2.jpgULC: NATWORK: An "Accelerator" for Nucleic Acid Test (2023) - Project Promotion [English]**Title:** NATWORK: An "Accelerator" for Nucleic Acid Test **Description:** Hi, we are NATWORK from Ulink Shanghai. By using the most recent technology, we developed a phosphorothioated DNA-dependent restriction endonuclease and studied its binding and cutting mechanisms, thereby applying this technique to nucleic acid detection. With the logic understood, we are able to apply point-of-care testing to newly sampled DNA segments, thereby reducing the complex procedure applied to DNA samples, and reducing the time required for testing. [Wiki](https://2022.igem.wiki/ulc)https://static.igem.org/peertube/streaming-playlists/hls/bc4b86d8-1853-45d2-9620-db71085e3de5/db7987cb-1940-4a1b-b08f-90123bbf70bd-master.m3u8https://video.igem.org/videos/embed/pfzXjAzxVfwK1B1mWwxXY21150182023-09-12T08:42:23.404ZYES2023 Project PromotionsNOhttps://video.igem.org/w/su5572znk8VxZZKuS8hqzghttps://video.igem.org/lazy-static/thumbnails/01e72146-ebd4-41ef-98f5-43893da99427.jpgPTSH-Taiwan: Sarcotreat - an engineered live biotherapeutic product that treats ... (2023) - Proj...**Title:** Sarcotreat - an engineered live biotherapeutic product that treats sarcopenia **Description:** Numbers of people will be diagnosed with sarcopenia in 2030, however, many do not know what sarcopenia is and its danger. Team PTSH-Taiwan attempts to develop an engineered live biotherapeutic product, Scarcotreat, that prevents and treats sarcopenia with cocktail therapy. [Wiki](https://2022.igem.wiki/ptsh-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/d678f07d-5e33-40d4-b21f-ed4132772399/f05d6c25-01d0-4711-aeb8-10371e25733f-master.m3u8https://video.igem.org/videos/embed/su5572znk8VxZZKuS8hqzg114072023-09-12T08:56:42.793ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ujWU1NfyCm1eenDAi9NttNhttps://video.igem.org/lazy-static/thumbnails/fe180176-a65d-41cb-8c7e-05cd980f3c0d.jpgSJTU-software: DARWINS - Directed Ago Renewal With Ideal proteiN thermal-Stability (2023) - Proje...**Title:** DARWINS - Directed Ago Renewal With Ideal proteiN thermal-Stability **Description:** DARWINS is a protein thermal stability predictor empowered by state-of-art deep learning technique, we aim to accelerate directed revolution with DARWINS and develop argonaute mutant of better thermal stability. [Wiki](https://2022.igem.wiki/sjtu-software)https://static.igem.org/peertube/streaming-playlists/hls/e5651a08-36a0-4621-b1a1-c17f09218868/6f41e72f-b728-4835-8eb0-051b0bb3c862-master.m3u8https://video.igem.org/videos/embed/ujWU1NfyCm1eenDAi9NttN1150852023-09-12T11:25:14.310ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gfhwxaz7gbhPxkTVHEscBchttps://video.igem.org/lazy-static/thumbnails/5fc86562-c3c6-43a1-86ea-8494373de239.jpgUESTC-China: E.coli-Air Guard: for a more pleasant and healthier air environment (2023) - Project...**Title:** E.coli-Air Guard: for a more pleasant and healthier air environment **Description:** In this video, we introduce the issue of air pollution caused by various harmful substances produced through human activities and we focuse on indole. We will make E. coli that can degrade indole efficiently and construct suitable hardware for this E. coli so that it can purify the air more effectively. The ultimate aim is to achieve cleaner and healthier air through this comprehensive approach. [Wiki](https://2022.igem.wiki/uestc-china)https://static.igem.org/peertube/streaming-playlists/hls/7b77ad70-b18d-4aac-a3b7-4fdf5e7f7f55/d5e8e93d-3e21-45a2-bb2a-1b7e7db89790-master.m3u8https://video.igem.org/videos/embed/gfhwxaz7gbhPxkTVHEscBc1200162023-09-12T11:34:59.061ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kbdt1aGVizTo5PBbSo6jZuhttps://video.igem.org/lazy-static/thumbnails/2aa77c07-816b-4733-8285-46a642229a04.jpgBFSU-ICUnited: The inspiration of bio-conditioner and the introduced of correspo... (2023) - Proj...**Title:** The inspiration of bio-conditioner and the introduced of corresponding functions of the three systems **Description:** In this short video, we will introduce the inspiration that inspired us to create this bio-conditioner and the corresponding three systems and the synthesis of enzymes [Wiki](https://2022.igem.wiki/bfsu-icunited)https://static.igem.org/peertube/streaming-playlists/hls/9b4ac121-9075-44cf-861b-22e86f9b79f6/fbec5e44-3d9b-48e6-9ff3-235abff5c4af-master.m3u8https://video.igem.org/videos/embed/kbdt1aGVizTo5PBbSo6jZu1200122023-09-12T12:01:14.431ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oNgSXdbULo3RqhcLi8cNTDhttps://video.igem.org/lazy-static/thumbnails/90ce8a53-f6d9-4d0f-9075-72ba468a8fac.jpgTechnion-Israel: Cris as a sulotion to utbye (2023) - Project Promotion [English]**Title:** Cris as a sulotion to utbye **Description:** link to our project description in the Wiki: https://2023.igem.wiki/technion-israel/description [Wiki](https://2022.igem.wiki/technion-israel)https://static.igem.org/peertube/streaming-playlists/hls/b89f0ca5-915d-458d-b872-5c53c6c16d73/3d813cb5-61ce-41e8-b1ed-93f135252b95-master.m3u8https://video.igem.org/videos/embed/oNgSXdbULo3RqhcLi8cNTD1150432023-09-12T12:25:54.402ZYES2023 Project PromotionsNOhttps://video.igem.org/w/9Zwkrh5STWT8YSP6BNRNTchttps://video.igem.org/lazy-static/thumbnails/c1da730c-42c0-4b90-b32a-9c6325f2f277.jpgWLC-Milwaukee: Fall23_Dirt_Detective (2023) - Project Promotion [English]**Title:** Fall23_Dirt_Detective **Description:** The correct amount of nutrients in the soil means successful farming for farmers and a reduction in eutrophication. In order to differentiate and determine the amount of bioavailable phosphate in soil, we used engineered E. coli as a biological sensor. When coming into contact with bioavailable phosphate in soil samples the sensor will cause a color change. This allows for the analysis of bioavailable phosphate levels in soil with a biological assay. [Wiki](https://2022.igem.wiki/wlc-milwaukee)https://static.igem.org/peertube/streaming-playlists/hls/48d132e7-283f-4b5b-a2c7-c74e58071a39/181b2dd0-b596-4a95-8c33-a2305456b1ac-master.m3u8https://video.igem.org/videos/embed/9Zwkrh5STWT8YSP6BNRNTc115072023-09-12T13:16:12.219ZYES2023 Project PromotionsNOhttps://video.igem.org/w/egZKS6eRieqnXeArBB26q9https://video.igem.org/lazy-static/thumbnails/ad2d42b5-4c22-4459-a537-f5cb140cdfaf.jpgNanjing-NFLS: Joint Guardian---to anti-obesity and protect our joints from the h... (2023) - Proj...**Title:** Joint Guardian---to anti-obesity and protect our joints from the harm of obese adipocyte exosomes **Description:** Osteoarthiritis and Obesity are two major health problems prevalent in our society nowadays. Obesity increases the risk of OA in both weight-bearing (knee) and non-weight-bearing (hand) joints, and obesity doubles the lifetime risk of OA. An efficient new therapeutic target for osteoarthritis related obesity is of urgent need. Adipose tissue can secrete more exosomes in the obese condition, which have been reported to play an important role in inter-organ communication and regulate the functions of joints. Micro-RNA, a small non-coding RNA, is an important component of exosomes that function as guide molecules in RNA silencing. Our project utilizes TargetScan software and luciferase reporter plasmid to validate its target gene in the obese exosomal micro-RNA. The inhibition of the highly expressed adipocyte exosomal micro-RNA can greatly reduce its harm on the joint and be an ideal way for the joint guarding. [Wiki](https://2022.igem.wiki/nanjing-nfls)https://static.igem.org/peertube/streaming-playlists/hls/6b828d7d-749c-4e4a-8915-86208bef67a4/3ba2c199-39aa-4eb7-8020-ce82e79e448e-master.m3u8https://video.igem.org/videos/embed/egZKS6eRieqnXeArBB26q91200352023-09-12T14:15:32.002ZYES2023 Project PromotionsNOhttps://video.igem.org/w/mDqCTztpRT9JFd5kH4curehttps://video.igem.org/lazy-static/thumbnails/207c4478-6267-4434-a6a5-6c479a753172.jpgNMU-China: GUT-Sweeper (2023) - Project Promotion [English]**Title:** GUT-Sweeper **Description:** Hello! We are the team NMU-China, I’d like to introduce you to our project, GUT-Sweeper. Defecation is a normal part of our lives, but approximately 745 million people around the world are troubled by constipation every day, making it an invisible health killer. However, conventional constipation treatment methods often have drawbacks such as long cycles, poor efficacy, and high costs. How can these problems be solved? Our team has come up with a solution. We have modified Escherichia coli and named it "gut-sweeper" and equipped it with three powerful weapons. Receptor modules, which can sense the concentration of butyrate and express CI proteins to inhibit metabolic module in normal human body. Metabolic module, which can promote intestinal peristalsis and secretion to relieve constipation. When they finish the task, gut-sweepers will sacrifice without polluting environment, and this depends on the double insurance of the safety module: If gut-sweeper senses low doses of tetracycline and analogues (TET), or as the feces are excreted, the gut-sweepers perceive that the environment does not contain rhamnose and the temperature is below 37 °C, it will calmly face its death. Then how to get gut-sweepers into the human body? Our team uses yogurt with rhamnose added as a carrier. Patients may resist taking medicine, but who will refuse a nice cup of yogurt? A delicious cup of yogurt can not only satisfy your appetite, but also imperceptibly prevent, monitor and treat constipation in daily diet. We believe that this design can be widely applied to the prevention and treatment of constipation, and escort the healthy life of constipation patients, especially elderly patients. [Wiki](https://2022.igem.wiki/nmu-china)https://static.igem.org/peertube/streaming-playlists/hls/a73079a5-3d7c-4db6-8e80-248d5ce9adef/86db4a04-3725-49e6-9485-b64386313223-master.m3u8https://video.igem.org/videos/embed/mDqCTztpRT9JFd5kH4cure1200932023-09-12T14:27:06.909ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2SYYYZsq8wqjSpCxnXC33qhttps://video.igem.org/lazy-static/thumbnails/c00a1599-52df-48d1-ba2e-23ce8ebe74b6.jpgBS-United-China: A new method for predicting acne vulgaris and preventing the oc... (2023) - Proj...**Title:** A new method for predicting acne vulgaris and preventing the occurrence of acne **Description:** Acne vulgaris is the second most prevalent inflammatory dermatoses worldwide, impacting more than 85% of adolescents’ physical and psychological health. So far, no method on acne prevention is reported. Here, we invented a new L-RCA based method, BS test kit, to find out the ‘healthy’ people with potential acne vulgaris in 10 minutes. People who had the acne warning will undergo a certain treatment with BS cleanser. BS cleanser contained 3 key elements: a Propionibacterium acnes (P. acnes) fix protein named capsular antigen fragment 1- antimicrobial peptide infused (Caf1-AMP), and a specified P. acnes killing protein named TurboID-signal peptide. We also added Glutathione Peroxidase 7 to the BS cleanser to eliminate the reactive oxygen species and protect the skin cells from oxidative damage. In summary, we offer a solution for predicting and preventing the growth of P. acne in 'healthy' individuals before acne happens. [Wiki](https://2022.igem.wiki/bs-united-china)https://static.igem.org/peertube/streaming-playlists/hls/0f3771a0-023c-4e72-bc74-b6d862bb4bc4/ee8e8466-4eb1-43e5-9ad7-91d8d2a92599-master.m3u8https://video.igem.org/videos/embed/2SYYYZsq8wqjSpCxnXC33q1210192023-09-12T14:54:45.916ZYES2023 Project PromotionsNOhttps://video.igem.org/w/rJPSBRBLHyqfRQhTgzMMFhhttps://video.igem.org/lazy-static/thumbnails/299b6ef5-be36-4575-aa2b-7907f8d3f423.jpgSquirrel-Beijing-I: Decolorization Magic of BC (2023) - Project Promotion [English]**Title:** Decolorization Magic of BC **Description:** Our project mainly focuses on utilization of genetic engineering to enhance the production capacity of microbial flocculants and use it in the treatment of textile wastewater. There are three major stages of the treatment: primary sedimentation, secondary sedimentation and ultrafiltration. In this promotion video, it first outlines the purpose and environmental background of our team starting this project, followed by our ideas and designed solution, and then our laboratory process demonstration, and finally showcases our experimental principle animation and the equipment design and making. [Wiki](https://2022.igem.wiki/squirrel-beijing-i)https://static.igem.org/peertube/streaming-playlists/hls/d06f351b-db7c-42e6-8c77-a929efe96d72/abd4b262-dce7-4978-b31a-3e7185b1db3c-master.m3u8https://video.igem.org/videos/embed/rJPSBRBLHyqfRQhTgzMMFh1190322023-09-12T15:02:13.294ZYES2023 Project PromotionsNOhttps://video.igem.org/w/rt6x8bt5Jyo2s4koVpfuTMhttps://video.igem.org/lazy-static/thumbnails/92e3c1b0-527b-4d37-a852-36f606b4e887.jpgUIncheon: SymbioNex: forging a resilient and safer tomorrow (2023) - Project Promotion [English]**Title:** SymbioNex: forging a resilient and safer tomorrow **Description:** In the realm of synthetic biology, microorganisms, much like diverse teams, adapt and thrive through symbiosis. Co-culture cultivation in Living Modified Organisms (LMOs) has proven more efficient than monoculture. Yet, LMO safety remains a paramount concern, underscoring the vital role of bio-safety measures. Our project aims to create tailored biocontainment systems for co-culture conditions, unlocking the full potential of this innovative approach. [Wiki](https://2022.igem.wiki/uincheon)https://static.igem.org/peertube/streaming-playlists/hls/ce3cf5d9-95f3-4d9a-baf0-8e6aa9ccdc6b/a816ed55-73bb-470a-a360-9992d9237e61-master.m3u8https://video.igem.org/videos/embed/rt6x8bt5Jyo2s4koVpfuTM1190112023-09-12T15:19:11.433ZYES2023 Project PromotionsNOhttps://video.igem.org/w/sS5uiJkn21wy6Rjpj67SA1https://video.igem.org/lazy-static/thumbnails/855745e9-935f-403c-92bf-50fd5cc8681c.jpgLethbridgeHS: ChromoSense (2023) - Project Promotion [English]**Title:** ChromoSense **Description:** Our team is redesigning a chromoprotein to a biosensor platform. The colour-changing chromoprotein switches colours upon binding to a target ligand. The biosensor design is based on work done by Stewart Loh's lab and the 2013 Uppsala iGEM team. The designed biosensor has the potential to detect a variety of ligands, our focus is on creating a biosensor to detect one of the most serious health problems of captive marine fish. Velvet disease is caused by Amyloodinium dinoflagellate parasites. The parasite enters the slime coat of a host fish and damages the host's cells. Fish farmers and pet owners would benefit from having a rapid test that is able to detect parasite levels early. The biosensor will be engineered to change colour upon binding to a target protein produced by the parasite. The user-friendly lateral flow assay will not require any specialized equipment and have a long shelf life. [Wiki](https://2022.igem.wiki/lethbridgehs)https://static.igem.org/peertube/streaming-playlists/hls/d98b8f3b-c79a-4099-bd0a-5d98973dcbfc/5465b45c-929c-400b-93d7-e6804b4bfca2-master.m3u8https://video.igem.org/videos/embed/sS5uiJkn21wy6Rjpj67SA11190372023-09-12T15:26:31.898ZYES2023 Project PromotionsNOhttps://video.igem.org/w/9xHBihwcRGHfGAnUhx1uRphttps://video.igem.org/lazy-static/thumbnails/a4482799-5083-4d7d-9730-066d47ccfdda.jpgToulouse-INSA-UPS: CALIPSO, a step forward in the field of cancer treatment (2023) - Project Prom...**Title:** CALIPSO, a step forward in the field of cancer treatment **Description:** Cancer is the second cause of death globally. The most common treatment used against cancer is chemotherapy. As we know, its mode of action leads to many side effects such as fatigue, nausea and hair loss. The issue of chemotherapy is its non-specificity since it targets all actively dividing cells, including healthy cells. With CALIPSO, we aim to limit side effects using liposomes. We designed our liposomes to deliver specifically an anticancer drug produced next to cancer cells. [Wiki](https://2022.igem.wiki/toulouse-insa-ups)https://static.igem.org/peertube/streaming-playlists/hls/4536cef0-2ec2-4b1d-aaeb-d93f23183d91/198ca712-c7e9-48f2-8344-899e50f801bf-master.m3u8https://video.igem.org/videos/embed/9xHBihwcRGHfGAnUhx1uRp120011932023-09-12T15:39:41.667ZYES2023 Project PromotionsNOhttps://video.igem.org/w/dkDA6gp5P87zJyZVAsHy6Zhttps://video.igem.org/lazy-static/thumbnails/e9049e5e-d0bb-4c93-8904-bee6694cec12.jpgNIS-Kazakhstan: Plastikaiensis: Breaking Down Plastic's Fortress (2023) - Project Promotion [Engl...**Title:** Plastikaiensis: Breaking Down Plastic's Fortress **Description:** "Rethinking Our Plastic Legacy: NIS_Kazakhstan's Journey to a Cleaner Future" Embark on a cinematic voyage through time with NIS_Kazakhstan as we confront the global plastic crisis. From Leonardo da Vinci's era to the 21st century, witness the transformation of plastic bottles and their impact on our planet. Join us in unveiling our innovative solution, involving modified bacteria and enzymes, to combat plastic waste. Together, let's shape a sustainable tomorrow. #PlasticRevolution #iGEM2023 [Wiki](https://2022.igem.wiki/nis-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/63ebf5b7-e8eb-4986-9fbc-4b82de1ad2e3/d891be4d-091b-4659-b7f9-9b668352958a-master.m3u8https://video.igem.org/videos/embed/dkDA6gp5P87zJyZVAsHy6Z12207572023-09-12T17:15:03.758ZYES2023 Project PromotionsNOhttps://video.igem.org/w/aob5xotVW9bJ5P5T3BM5M8https://video.igem.org/lazy-static/thumbnails/59390b17-a1aa-4f83-80da-1c87ca6f3c40.jpgPatrasBio: Mercure 2.0 (2023) - Project Promotion [English]**Title:** Mercure 2.0 **Description:** Marble monuments are an integral part of our cultural heritage, reflecting the course of Greek civilization over the centuries, however biotic and abiotic factors tend to alter them qualitatively and aesthetically. Our research activity is focused on combating the bioerosion of marbles by microorganisms, a phenomenon that is significantly responsible for the degradation of the material and is nowadays mainly treated with the use of chemical biocides, which have a series of effects both for humans and the environment, as and for the marble itself. Our goal is, using the methods of synthetic biology, to create an innovative biological biocide, friendly to the human factor, nature and application material. [Wiki](https://2022.igem.wiki/patrasbio)https://static.igem.org/peertube/streaming-playlists/hls/4bfad264-cac4-47af-bcd8-214c5d158401/8f6925e8-2d7d-4ab1-85cb-02df28386282-master.m3u8https://video.igem.org/videos/embed/aob5xotVW9bJ5P5T3BM5M8120072023-09-12T17:42:31.882ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fts2RStGP6acYTFo3ZxMbihttps://video.igem.org/lazy-static/thumbnails/80237d5a-bc2f-4a8f-9a07-a5df908a2cdc.jpgBostonU-HW: Introducing APUS: The Automated Plug and Playable Microfluidic Syste... (2023) - Proj...**Title:** Introducing APUS: The Automated Plug and Playable Microfluidic System for cell communication **Description:** ”Division of Labor” of synthetic pathways throughout microbial consortia is relatively new within the field of SynBio. However, the complexity of these pathways is outgrowing current lab hardware; experimentation is becoming increasingly infeasible. APUS aims to bridge the gap between existing hardware & cutting-edge wetware with a microfluidic system that facilitates cell proliferation, communication, & continuous data collection. With APUS, users can design experiments, & run them with ease. [Wiki](https://2022.igem.wiki/bostonu-hw)https://static.igem.org/peertube/streaming-playlists/hls/753510dc-3d2e-4dc2-8225-504060fb3a51/e244a8f6-51f7-4db4-81b0-1af9e0f70b2e-master.m3u8https://video.igem.org/videos/embed/fts2RStGP6acYTFo3ZxMbi11901522023-09-12T17:58:45.603ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hr8Br2Fjm3F57izsfcgHHPhttps://video.igem.org/lazy-static/thumbnails/1c9dd05f-95f9-4f6d-8ede-905be46e572f.jpgIonis-Paris: Clean Heat : a bio-based heating and water depolluting system (2023) - Project Promo...**Title:** Clean Heat : a bio-based heating and water depolluting system **Description:** Clean Heat is a heating and water depolluting system developed by Ionis – Paris. It retrieves the wastewater of the houses to use them as a culture media for the growth of genetically modified microorganisms in a photobioreactor. Chlamydomonas reinhardtii is genetically modified to produce heat while Ensifer meliloti is transformed to deactivate 17-alpha-Ethinylestradiols, an endocrine disruptor. [Wiki](https://2022.igem.wiki/ionis-paris)https://static.igem.org/peertube/streaming-playlists/hls/851480d0-d4dd-4afe-9b1e-49693ea5dd05/16fc252b-b381-435c-b398-7295e7445c6f-master.m3u8https://video.igem.org/videos/embed/hr8Br2Fjm3F57izsfcgHHP1190362023-09-12T18:19:39.615ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gTPrwK34kyAVbW5XGUgj8fhttps://video.igem.org/lazy-static/thumbnails/9c050732-37b4-40ba-8fe4-06c331cf1abf.jpgTecMonterreyGDL: Biosensor for emerging contaminants (2023) - Project Promotion [English]**Title:** Biosensor for emerging contaminants **Description:** In Mexico, 59.1% of water bodies are polluted. Given the recent identification of emerging contaminants, limited research exists on their prevalence. Additionally, there is a lack of simple methods for detecting and quantifying them, including erythromycin and cadmium. In response, we decided to create an affordable biosensor able to detect these contaminants using fluorescence, as well as a portable device capable of analyzing water samples, detecting the fluorescence emitted by the biosensor. [Wiki](https://2022.igem.wiki/tecmonterreygdl)https://static.igem.org/peertube/streaming-playlists/hls/80b53f8b-085a-488a-ac11-b0bffdc49e84/db8fff44-096e-4877-91bc-c287c05710e7-master.m3u8https://video.igem.org/videos/embed/gTPrwK34kyAVbW5XGUgj8f1200242023-09-12T18:54:17.036ZYES2023 Project PromotionsNOhttps://video.igem.org/w/opqrCHEb2BFweRjUioRRkuhttps://video.igem.org/lazy-static/thumbnails/fb2763b2-71f7-45ca-b419-2dcc2cf72fbc.jpgSaint-Joseph: Behcheck (2023) - Project Promotion [English]**Title:** Behcheck **Description:** Doctors out there in the field are battling to save lives and alleviate patients' pain each day. A time-saver, economic and accurate diagnosis technique is crucial. Therefore, we have developed a test kit for Behçet's Disease, which is notoriously difficult to diagnose. To learn about the history of Behçet's Disease, its impact worldwide and our project Behcheck; check out our video! [Wiki](https://2022.igem.wiki/saint-joseph)https://static.igem.org/peertube/streaming-playlists/hls/b56e3859-8ba3-429b-9ed8-ed37da203df6/51156107-1c1c-4ffe-a439-b7a279474657-master.m3u8https://video.igem.org/videos/embed/opqrCHEb2BFweRjUioRRku1200532023-09-12T20:49:59.706ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2rh9ZBFuScQWGuKuPJRUYbhttps://video.igem.org/lazy-static/thumbnails/a939d43b-1956-4d8d-b52a-576c7036c59a.jpgQueens-Canada: Recircuit (2023) - Project Promotion [English]**Title:** Recircuit **Description:** Through Recircuit, we will bridge the gap caused by plastic’s resilience to degradation and cost to recycle by producing a bacterium that uses PET plastic, found in clear water bottles, as a feedstock for PHB synthesis, a type of bioplastic. Recycling with a biological system not only has the potential to be cheaper than chemical methods, but such a system can repurpose PET into a more environmentally friendly alternative. As a result, we can reduce PET waste by transforming it into a bioplastic, which, after use, will be easier to degrade. [Wiki](https://2022.igem.wiki/queens-canada)https://static.igem.org/peertube/streaming-playlists/hls/0ba0b056-6440-4613-b08f-5bfcd8bddd32/ac6c2461-6243-4afc-bb11-6de403bf8d8b-master.m3u8https://video.igem.org/videos/embed/2rh9ZBFuScQWGuKuPJRUYb1200712023-09-12T21:39:12.955ZYES2023 Project PromotionsNOhttps://video.igem.org/w/r2MTJwqrU7VqbwcNhWgU8zhttps://video.igem.org/lazy-static/thumbnails/a2dd872f-2799-427e-89c0-c5ad1c7d0732.jpgSheffield: PARSE - PhAge deRived growth SlowEr (2023) - Project Promotion [English]**Title:** PARSE - PhAge deRived growth SlowEr **Description:** We designed and built several plasmid constructs that allow for the genetically controllable modulation of growth rate in E. coli. By using phage-derived growth inhibitor genes under inducible and constitutive promoters, cells can grow at a user-specified rate. This may be useful for redirecting energetic flux away from growth and toward protein production, as a selection strategy for in vivo directed evolution methods, and for ease of experimental planning. To complement this, the team is also building a bioreactor that can precisely control the concentration of substances like IPTG or antibiotics. This device can automate the process of gathering inducer: output coefficients, of which the output may be growth rate or fluorescence. We also aim to make the device affordable, accessible, and safe for everyone to use. [Wiki](https://2022.igem.wiki/sheffield)https://static.igem.org/peertube/streaming-playlists/hls/cab47e00-242a-4b2b-8296-650eff6ccdbf/fb9c870f-4579-4daf-b044-abf776fac912-master.m3u8https://video.igem.org/videos/embed/r2MTJwqrU7VqbwcNhWgU8z11904042023-09-12T22:15:40.041ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6ktDv3xDa81dVZd5b7Evxahttps://video.igem.org/lazy-static/thumbnails/d52ac9a0-945a-4ed4-bc2e-8e1b1df1de98.jpgEastCoastBioCrew: RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient ... (2023) - Proj...**Title:** RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient Runoff **Description:** Modern agricultural practices rely heavily on phosphate fertilizers. However, due to the tendency of phosphate to bond with minerals in the soil, most phosphate molecules exist in a form unusable to plants. These mineral phosphates are a driving force behind nutrient pollution and runoff in waterways all across the world. RhizeUP aims to engineer Rhizobium bacteria–a nutrient-fixing soil bacteria–to increase phosphate solubility for plant uptake while removing excess phosphate from the soil. [Wiki](https://2022.igem.wiki/eastcoastbiocrew)https://static.igem.org/peertube/streaming-playlists/hls/2b35dcdb-edc4-4397-b1c7-a72dbe1afeb3/083bca09-46b0-418e-9d82-32b6b4dbe29d-master.m3u8https://video.igem.org/videos/embed/6ktDv3xDa81dVZd5b7Evxa120072023-09-12T22:48:08.131ZYES2023 Project PromotionsNOhttps://video.igem.org/w/sJDyJqAqXWFg8VjyekwUEahttps://video.igem.org/lazy-static/thumbnails/2414e975-6f8e-43eb-b3f9-a64cf76a6ccf.jpgEastCoastBioCrew: RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient ... (2023) - Proj...**Title:** RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient Runoff **Description:** Modern agricultural practices rely heavily on phosphate fertilizers. However, due to the tendency of phosphate to bond with minerals in the soil, most phosphate molecules exist in a form unusable to plants. These mineral phosphates are a driving force behind nutrient pollution and runoff in waterways all across the world. RhizeUP aims to engineer Rhizobium bacteria–a nutrient-fixing soil bacteria–to increase phosphate solubility for plant uptake while removing excess phosphate from the soil. [Wiki](https://2022.igem.wiki/eastcoastbiocrew)https://static.igem.org/peertube/streaming-playlists/hls/d881fe4b-c8e8-43ac-8ced-6f861eed79f5/78b3f7f5-b3c1-49c5-a82b-209fa11ea0e3-master.m3u8https://video.igem.org/videos/embed/sJDyJqAqXWFg8VjyekwUEa120052023-09-12T22:49:39.668ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jfLPGTvuWYWhfzbfVAaHQghttps://video.igem.org/lazy-static/thumbnails/31e0efa4-1b2b-4818-a805-191901b4c870.jpgANU-Australia: A synthetic biology approach to tackle heavy-metal pollution (2023) - Project Prom...**Title:** A synthetic biology approach to tackle heavy-metal pollution **Description:** This project will tackle heavy-metal pollution, which has an important ecological impact on biodiversity and human health impacts. We propose a synthetic biology solution consisting of a modular bioaccumulation platform for heavy-metal bioremediation. We will engineer heavy-metal binding proteins (MBPs) localised to encapsulin-nanocompartments in alkaliphilic bacteria to capture and sequester toxic heavy-metal ions from the environment. [Wiki](https://2022.igem.wiki/anu-australia)https://static.igem.org/peertube/streaming-playlists/hls/93d48810-cfef-44aa-8874-1a61fb7ea4db/0db52499-f6ce-49ae-8a50-24bc790f8f0d-master.m3u8https://video.igem.org/videos/embed/jfLPGTvuWYWhfzbfVAaHQg1180312023-09-13T00:44:48.902ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ec1KY6CpX6qLYs9LeLFL4Fhttps://video.igem.org/lazy-static/thumbnails/1ed0d84c-cc01-4988-9add-bf219f904241.jpgBNUZH-China: FeFighterS: Engineered Bacteria lnduce Ferroptosis in Tumor Cells (2023) - Project P...**Title:** FeFighterS: Engineered Bacteria lnduce Ferroptosis in Tumor Cells **Description:** In this project, the 2023 BNUZH-China team aims to design a novel cancer treatment that utilizes attenuated Salmonella typhimurium to mediate ferroptosis in tumor cells. The engineered bacteria secrete glucose oxidase and mediate the silencing of SLC7A11 to facilitate lipid peroxidation, further accelerating the phospholipid peroxidation and finally mediating ferroptosis. The FeFighterS utilizes genetically-engineered bacteria to provide a safe and precise cancer therapy alternative, which will relieve the patient's pain. [Wiki](https://2022.igem.wiki/bnuzh-china)https://static.igem.org/peertube/streaming-playlists/hls/6ad07383-035f-40ed-8f17-a20a804827fd/1469c91d-c1ef-4324-8b52-ea6e6c5aa4ae-master.m3u8https://video.igem.org/videos/embed/ec1KY6CpX6qLYs9LeLFL4F11701492023-09-13T01:55:46.302ZYES2023 Project PromotionsNOhttps://video.igem.org/w/a3ud3WMKuByqfzv6bwh6Vzhttps://video.igem.org/lazy-static/thumbnails/dc1fcc57-62e2-4b44-ac41-c0a1d517d1be.jpgSquirrel-Shanghai: Dive into the soil (2023) - Project Promotion [English]**Title:** Dive into the soil **Description:** There is a widespread problem of heavy metal contamination in agricultural land, which may bring about downstream water system contamination, crop yield reduction, and jeopardize personal safety. However, current means of dealing with heavy metal contamination in agricultural land are costly, time-consuming, and ineffective. We hope to provide a new solution for heavy metal pollution in agricultural land by developing an E. coli with heavy metal detection and recovery function. [Wiki](https://2022.igem.wiki/squirrel-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/493b1e7f-c2e1-4f0b-9301-502229b01d37/0f42cf50-0099-42f7-ad51-9911555f98f0-master.m3u8https://video.igem.org/videos/embed/a3ud3WMKuByqfzv6bwh6Vz1190542023-09-13T02:31:46.855ZYES2023 Project PromotionsNOhttps://video.igem.org/w/dQyv52kbUtdoJzmUp6kvtkhttps://video.igem.org/lazy-static/thumbnails/588ec30d-4676-41a2-876f-e55a546a6746.jpgHangzhou-BioX: Functional Vitamin B2-Enriched Bread to Help Mitigate Malnutrition (2023) - Projec...**Title:** Functional Vitamin B2-Enriched Bread to Help Mitigate Malnutrition **Description:** Vitamin B2 deficiency can lead to disorders of the mouth, skin, and genitalia. In China, the vitamin B2 deficiency rate is over 85%, but most people are not aware of it. To deal with it, we overexpressed GTP synthetase (ADE4) and vitamin B2 synthetases (RIB1 and RIB7) in the baker s yeast, Saccharomyces cerevisiae. Bakeries can produce bread and mantou (Chinese steamed bun) by using our yeast at no extra cost, and supply vitamin B2-enriched food for the general public to mitigate malnutrition. [Wiki](https://2022.igem.wiki/hangzhou-biox)https://static.igem.org/peertube/streaming-playlists/hls/67f564fa-e75d-411f-a3bc-e081e6074aed/d15c14df-9f0e-4ab8-8b39-29694b220235-master.m3u8https://video.igem.org/videos/embed/dQyv52kbUtdoJzmUp6kvtk1200502023-09-13T02:52:47.965ZYES2023 Project PromotionsNOhttps://video.igem.org/w/rUxZD4GNbnQ6xbHUVSucouhttps://video.igem.org/lazy-static/thumbnails/1010d48f-2777-44bb-bd26-81cc2c38b576.jpgGuangxi-U-China: Engineered Bacteria with Nano-Immunomodulator for Precision The... (2023) - Proj...**Title:** Engineered Bacteria with Nano-Immunomodulator for Precision Therapy of Triple Negative Breast Cancer **Description:** This work is aimed to develop an immunotherapeutic approach based on engineered bacteria with nano-immunomodulator for the treatment of aggressive triple negative breast cancer that has poor prognosis and high risk of recurrence by remodeling the tumor microenvironment. Live E coli Nissle 1917 bacteria are genetically engineered with SIRPα gene and chemically modified with manganese dioxide nanoparticles that can specifically target to tumor surface CD47. It is expected to clear away lactic acid accumulated in the tumor microenvironment and re-boost macrophage driven anti-tumor immune responses. [Wiki](https://2022.igem.wiki/guangxi-u-china)https://static.igem.org/peertube/streaming-playlists/hls/d1cadc01-f71e-4787-9d97-fa5c3e76c0c4/894f4780-2f69-47c6-a84a-d593066364e3-master.m3u8https://video.igem.org/videos/embed/rUxZD4GNbnQ6xbHUVSucou1200452023-09-13T03:38:22.621ZYES2023 Project PromotionsNOhttps://video.igem.org/w/aiZPidPyV4i8jE5koqsjaJhttps://video.igem.org/lazy-static/thumbnails/70402f74-8fca-43aa-af31-db0b6f2b698d.jpgSUSTech-CHINA: Construction of garrison probiotics for precise defense and contr... (2023) - Proj...**Title:** Construction of garrison probiotics for precise defense and control of drug-resistant biofilms **Description:** Bacterial biofilm is a structure produced by bacteria to adapt to the environment. Once mature biofilm is formed by intestinal pathogenic bacteria, they will acquire resistance to antibiotics and body immunity, repeatedly inducing infections and causing diarrhea or gastrointestinal inflammation. The mesh structure formed by eDNA in the mature biofilm plays an important role in maintaining the stability of the biofilm. In this project, we will modify the intestinal probiotic Escherichia coli Nissle 1917 to recognize Pseudomonas aeruginosa, induce the expression of recombinant HMGB1 protein and PslG polysaccharides, disrupt the dense structure formed by eDNA, and eliminate bioepidermal resistance. The engineered bacteria we designed and constructed may help prevent and treat diseases caused by biofilm infections of intestinal pathogenic bacteria. [Wiki](https://2022.igem.wiki/sustech-china)https://static.igem.org/peertube/streaming-playlists/hls/4b6585a6-beaf-4983-8ded-944552b71acc/41cfde6e-866f-4107-a181-1db6d815faca-master.m3u8https://video.igem.org/videos/embed/aiZPidPyV4i8jE5koqsjaJ1200152023-09-13T03:57:26.242ZYES2023 Project PromotionsNOhttps://video.igem.org/w/5rs3i79613sqQCBJi9b8VVhttps://video.igem.org/lazy-static/thumbnails/eb557182-0a19-4949-ac8d-4d97381b0922.jpgConcordia-Montreal: SyncOva - Early Detection of Ovarian Cancer (2023) - Project Promotion [English]**Title:** SyncOva - Early Detection of Ovarian Cancer **Description:** Ovarian cancer is the most dangerous reproductive cancer that women could be diagnosed with, in part because of our current inability to detect it in the early stages. SyncOva aims to solve the lack of early detection methods by providing a simple, non-invasive and accessible standard screening test. [Wiki](https://2022.igem.wiki/concordia-montreal)https://static.igem.org/peertube/streaming-playlists/hls/23f23243-9567-4d1b-8be6-c9289a9c0fe3/fa4fa739-ac89-4a00-b50d-082e7d45857d-master.m3u8https://video.igem.org/videos/embed/5rs3i79613sqQCBJi9b8VV1200552023-09-13T04:40:10.242ZYES2023 Project PromotionsNOhttps://video.igem.org/w/18kQaUCm4AnvNJPeqWVjaihttps://video.igem.org/lazy-static/thumbnails/75e9178c-053b-4361-95f1-355e9aa1a62c.jpgNanjing-SDG: Directed Evolution of Clostridium Tyrobutyricum to Improve Butyl Bu... (2023) - Proj...**Title:** Directed Evolution of Clostridium Tyrobutyricum to Improve Butyl Butyrate Production **Description:** The increasing depletion of traditional energy and the greenhouse effect pose challenges to global sustainable development. Butyl butyrate’s low viscosity and low carbon emission make it a biofuel with a high potential of alleviating the above problems. We genetically engineered C. tyrobutyricum to enable efficient and large-scale synthesis of butyl butyrate. We optimize metabolic pathways through three strategies to further reinforce the synthesis of butyrate and butanol, including precursor accumulation, inhibition of byproducts, and increasing mass transfer efficiency. The results showed that yields of butyl butyrate can be improved to varying degrees, which indicated that it is a promising way to improve the biosynthesis efficiency of butyl butyrate. [Wiki](https://2022.igem.wiki/nanjing-sdg)https://static.igem.org/peertube/streaming-playlists/hls/01066d69-5ffc-4cd0-8399-bf83bd61b20b/d14ec3ae-d87f-4253-8b36-12d8cc82b11c-master.m3u8https://video.igem.org/videos/embed/18kQaUCm4AnvNJPeqWVjai11801052023-09-13T05:02:54.280ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jqiMCvfE6a4Q4rYb4MKkyyhttps://video.igem.org/lazy-static/thumbnails/51516086-1ae4-42f8-aca8-f960d18f09bf.jpgGuangzhou-MedX: SAFe: Shikimic acid feed for healthy stockbreeding and sustainab... (2023) - Proj...**Title:** SAFe: Shikimic acid feed for healthy stockbreeding and sustainability **Description:** Antibody-free animal breeding protects human health, reduces the problem of resistance, and improves food safety. Due to the antiviral properties of shikimic acid (SA), as well as the low prices of sources, today s common antiviral medicine often adds it as the main ingredient. In E. coli, there is a natural pathway to use glucose as a substrate for high production, and only simple genetic modifications are needed to make its metabolic process more efficient for SA synthesis. In addition, E. coli is well tolerated with SA. In this project, we will be able to produce SA more efficiently, which will help the livestock industry reduce waste from viral diseases and increase profits. [Wiki](https://2022.igem.wiki/guangzhou-medx)https://static.igem.org/peertube/streaming-playlists/hls/95294ecc-bbd9-4c07-9466-423bd83c6bf4/b949b97f-e7dc-4ccf-aeb1-d90010c8f013-master.m3u8https://video.igem.org/videos/embed/jqiMCvfE6a4Q4rYb4MKkyy1060282023-09-13T05:15:50.401ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fWkPe7gGyk4kJoyrQKN36uhttps://video.igem.org/lazy-static/thumbnails/ddf8b020-b71a-40f5-b322-d710efcbf977.jpgZJUT-China: Bacillus-based spontaneous PET remediation solution for sustainable ... (2023) - Proj...**Title:** Bacillus-based spontaneous PET remediation solution for sustainable environment. **Description:** PET, a commonly used plastic material, poses a significant threat to the environment as it is resistant to natural degradation. To tackle this challenge, we have developed an innovative and sustainable approach using engineered Bacillus subtilis. Our bacteria possess four functional modules that enable them to replicate, attach, break down, and detect PET in the environment. In addition, we have integrated a suicide switch to regulate the bacteria population and guarantee biosafety. Our project aims to address the issue of plastic pollution and safeguard our planet. [Wiki](https://2022.igem.wiki/zjut-china)https://static.igem.org/peertube/streaming-playlists/hls/78f650d6-f4d3-4217-9357-c3f7296968a6/6cb0ecc7-e1a0-4ee6-a498-86329d790d31-master.m3u8https://video.igem.org/videos/embed/fWkPe7gGyk4kJoyrQKN36u1200942023-09-13T06:25:11.073ZYES2023 Project PromotionsNOhttps://video.igem.org/w/d4Y6f5G4nEx7Joxc36X4cShttps://video.igem.org/lazy-static/thumbnails/a485c46d-8335-48f4-8785-d59663c01325.jpgSYSU-SLS-CHINA: SYN-MACRO: Engineering Macrophages for Enhanced Solid Tumor Therapy (2023) - Proj...**Title:** SYN-MACRO: Engineering Macrophages for Enhanced Solid Tumor Therapy **Description:** CAR-T cell therapy has shown great efficacy in treating hematological malignancies. However, its effectiveness in treating solid tumors is limited due to restricted infiltration and potential toxic side effects. To address this challenge, we propose a novel approach that focuses on harnessing the potential of macrophages for solid tumor treatment. Macrophages exhibit a high infiltration rate in common solid tumor tissues and play a crucial role as upstream regulators. By leveraging their unique characteristics, we aim to develop a safer and more effective treatment option. However, it is important to note that macrophages can exist in different phenotypes, each with varying effects on tumor development at different stages. Our project aims to engineer patients' macrophages to specifically target solid tumors, thereby enhancing the efficacy of immune cell-based therapy. Through genetic modifications and precise targeting, we will optimize the macrophage phenotype to promote tumor suppression. By combining the strengths of macrophage infiltration with tailored genetic engineering, we envision a promising solution to overcome the limitations of current solid tumor therapies. SYN-MACRO holds the potential to revolutionize the field of immune cell-based therapy and significantly improve patient outcomes in the treatment of solid tumors. [Wiki](https://2022.igem.wiki/sysu-sls-china)https://static.igem.org/peertube/streaming-playlists/hls/61bb7650-4888-48f9-9c20-7d1a29e8c984/d4037c04-6ba0-4796-abda-a3bdf50f963f-master.m3u8https://video.igem.org/videos/embed/d4Y6f5G4nEx7Joxc36X4cS1180252023-09-13T06:43:39.183ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hK1xCs1aiobiqpaVRV9Q2phttps://video.igem.org/lazy-static/thumbnails/172539ef-88e8-4402-9004-c82890ffbcef.jpgYiYe-China: miRNA Sensor based on LncRNA MALAT1 for diagnosis of cervical cancer (2023) - Project...**Title:** miRNA Sensor based on LncRNA MALAT1 for diagnosis of cervical cancer **Description:** Cervical cancer is the fourth most common cancer among women globally. Peppers plasmid is a newly developed tool that can be used for real-time, high-throughput quantification and even visualize the location of RNA in live cells. Noncoding RNAs (ncRNAs), including miRNA and lncRNA, modulate a wide array of growth and differentiation processes and become potential diagnostic biomarkers in cervical cancer. Metastasis-associated lung adenocarcinoma transcript 1 (MALAT1) has been reported to be upregulated in cervical cancer tissues and work as miRNA sponges through binding to specific miRNAs. Previous studies indicated lots of miRNAs downregualted in cervical cancer could bind to MALAT1, for example, miR-203-3p, miR-22-3p, miR-429, miR-152-3p, and miR-145-5p. Therefore, we will clone the specific miRNA binding sequence from MALAT1 into pepper plasmid, which can monitor the change of miRNAs in cervical cancer.This system will offer a promising approach for early diagnosis of cervical cancer by measuring fluorescence activity. [Wiki](https://2022.igem.wiki/yiye-china)https://static.igem.org/peertube/streaming-playlists/hls/87938967-617c-49bb-a01a-8d8ddbf5e501/a6fbe161-bc5f-4ee0-a7e3-9a506a1d7174-master.m3u8https://video.igem.org/videos/embed/hK1xCs1aiobiqpaVRV9Q2p1190782023-09-13T06:49:03.392ZYES2023 Project PromotionsNOhttps://video.igem.org/w/vQ64tKnDLvD2abZHo8YCdyhttps://video.igem.org/lazy-static/thumbnails/21443c31-69e9-4f5d-9468-b213b0bb858a.jpgOUC-Haide: NCDriven-deHCHO (2023) - Project Promotion [English]**Title:** NCDriven-deHCHO **Description:** NCDriven-deHCHO aims to achieve oxidative removal of formaldehyde from the environment by endogenously expressing non-natural cofactor (NCD)-dependent formaldehyde dehydrogenase and formic acid dehydrogenase by engineered bacteria. Considering that these dehydrogenases would compete for nicotinamide adenine dinucleotide (NAD), OUC-Haide chooses NCD-dependent engineered formaldehyde dehydrogenase and formic acid dehydrogenase and induce the expression of the NCD synthase system to reduce the survival pressure of the engineered bacteria. Meanwhile, to reuse the reacted NCD (NCDH), the project was designed to express the engineered malic enzyme, which catalyzes NCDH to NCD, allowing the formaldehyde metabolic pathway to proceed stably. NCDriven-deHCHO offers an accessible solution for indoor air pollution caused by formaldehyde. OUC-Haide is committed to making our indoor spaces cleaner, safer, and healthier by harnessing the potential of synthetic biology to combat formaldehyde pollution. Together, we can create a more breathable and sustainable environment for everyone. [Wiki](https://2022.igem.wiki/ouc-haide)https://static.igem.org/peertube/streaming-playlists/hls/f18fd725-ac2a-4565-b2b5-6a5fabce1298/69928002-2b2d-493d-8f7f-dfd61afdc63c-master.m3u8https://video.igem.org/videos/embed/vQ64tKnDLvD2abZHo8YCdy1200382023-09-13T07:49:19.510ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oMBgbSVpdcpbempf1EUUKdhttps://video.igem.org/lazy-static/thumbnails/af29bf2e-8bde-4fff-9470-bebb83fbb4a6.jpgHNU-China: Phyto-gard, dedicated to safeguarding food security. (2023) - Project Promotion [English]**Title:** Phyto-gard, dedicated to safeguarding food security. **Description:** Our project revolves around the development of a plant warning system that can effectively respond to both biotic and abiotic stressors. We hope that crops can "call for help" on their own immediately when facing environmental threatening. To achieve this vision, we, HNU PHYTO-GARD, have brought forth an innovative solution. Through genetic modification of plants, we empower them to undergo spontaneous color changes, turning red or yellow when facing drought or pest infestation. This serves as a visual cue to alert growers to take preventive measures. [Wiki](https://2022.igem.wiki/hnu-china)https://static.igem.org/peertube/streaming-playlists/hls/b8874045-7109-4250-9ce6-7f31fe57d49a/9337ca54-eb86-4f0f-94db-f3d90ab2a9eb-master.m3u8https://video.igem.org/videos/embed/oMBgbSVpdcpbempf1EUUKd1200632023-09-13T07:50:35.267ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pzoqq2srwRJiKTjjwGMtQHhttps://video.igem.org/lazy-static/thumbnails/ca7d6cbd-83ae-4cfd-8544-e97e9c2705a5.jpgINSAENSLyon1: Fighting Antibiotic Resistance (2023) - Project Promotion [English]**Title:** Fighting Antibiotic Resistance **Description:** In light of the decreasing effectiveness of treatments against infections and the growing prevalence of antibiotic-resistant bacteria, antibiotic resistance poses a health scourge that we must address without delay. Our team has developed a groundbreaking solution, the SuperBugBuster, committed to combating these bacteria, thereby enabling the world to restore its enduring human, animal, and environmental health. [Wiki](https://2022.igem.wiki/insaenslyon1)https://static.igem.org/peertube/streaming-playlists/hls/beeb8d0d-254a-4b7e-9861-2641dd9f7c9d/2609c376-8a52-4b49-b7d8-bf95bf1d9232-master.m3u8https://video.igem.org/videos/embed/pzoqq2srwRJiKTjjwGMtQH1200352023-09-13T08:22:02.667ZYES2023 Project PromotionsNOhttps://video.igem.org/w/rkrS2Y3Dv5muQz9u2jQ7Vbhttps://video.igem.org/lazy-static/thumbnails/7e37eaa0-83ce-4c6f-9655-1569d532ebfa.jpgINSAENSLyon1: Fighting Antibiotic Resistance (2023) - Project Promotion [German]**Title:** Fighting Antibiotic Resistance **Description:** In light of the decreasing effectiveness of treatments against infections and the growing prevalence of antibiotic-resistant bacteria, antibiotic resistance poses a health scourge that we must address without delay. Our team has developed a groundbreaking solution, the SuperBugBuster, committed to combating these bacteria, thereby enabling the world to restore its enduring human, animal, and environmental health. [Wiki](https://2022.igem.wiki/insaenslyon1)https://static.igem.org/peertube/streaming-playlists/hls/cd2b895b-bfdf-45ce-8312-d976683c7724/f22e9e26-a9cc-4986-a06c-1384ac18687a-master.m3u8https://video.igem.org/videos/embed/rkrS2Y3Dv5muQz9u2jQ7Vb120012023-09-13T08:24:37.455ZYES2023 Project PromotionsNOhttps://video.igem.org/w/j83iiH3nU1fyjYzVjhBTjuhttps://video.igem.org/lazy-static/thumbnails/27130b92-b379-427e-bbbf-24cf7658e951.jpgINSAENSLyon1: Fighting Antibiotic Resistance (2023) - Project Promotion [Arabic]**Title:** Fighting Antibiotic Resistance **Description:** In light of the decreasing effectiveness of treatments against infections and the growing prevalence of antibiotic-resistant bacteria, antibiotic resistance poses a health scourge that we must address without delay. Our team has developed a groundbreaking solution, the SuperBugBuster, committed to combating these bacteria, thereby enabling the world to restore its enduring human, animal, and environmental health. [Wiki](https://2022.igem.wiki/insaenslyon1)https://static.igem.org/peertube/streaming-playlists/hls/92c01e62-66aa-4c42-9615-ee91fa938dd4/117a1b75-dc29-4214-b50a-daab54499eae-master.m3u8https://video.igem.org/videos/embed/j83iiH3nU1fyjYzVjhBTju120012023-09-13T08:26:58.802ZYES2023 Project PromotionsNOhttps://video.igem.org/w/dJK7BpdomVak1RYHnATtWbhttps://video.igem.org/lazy-static/thumbnails/26c3596c-36d5-44ac-becd-9b5eca4f0f02.jpgINSAENSLyon1: Fighting Antibiotic Resistance (2023) - Project Promotion [Spanish]**Title:** Fighting Antibiotic Resistance **Description:** In light of the decreasing effectiveness of treatments against infections and the growing prevalence of antibiotic-resistant bacteria, antibiotic resistance poses a health scourge that we must address without delay. Our team has developed a groundbreaking solution, the SuperBugBuster, committed to combating these bacteria, thereby enabling the world to restore its enduring human, animal, and environmental health. [Wiki](https://2022.igem.wiki/insaenslyon1)https://static.igem.org/peertube/streaming-playlists/hls/672578e1-5e9b-47df-a78a-924dc09ec88a/2d7c5953-e039-4a2a-b638-61317b9fb939-master.m3u8https://video.igem.org/videos/embed/dJK7BpdomVak1RYHnATtWb120022023-09-13T08:31:37.147ZYES2023 Project PromotionsNOhttps://video.igem.org/w/1jym4H8Vqd7f7NRhvHH5mShttps://video.igem.org/lazy-static/thumbnails/6d73f9fb-1561-4be5-ba3f-545ac5a60fc2.jpgExeter: CathExe - Our Mission (2023) - Project Promotion [English]**Title:** CathExe - Our Mission **Description:** Our project aims to develop a preventative probiotic coating (using modified Lactiplantibacillus Plantarum) for urinary catheters, which are afflicted by chronic biofilm based infections frequently, at the detriment of patient health and at huge cost to healthcare systems. [Wiki](https://2022.igem.wiki/exeter)https://static.igem.org/peertube/streaming-playlists/hls/0297525e-0f9f-4aa6-a488-4f05ba934ce2/94c353b2-963d-4556-9951-4b7fc04a35b4-master.m3u8https://video.igem.org/videos/embed/1jym4H8Vqd7f7NRhvHH5mS12001132023-09-13T08:35:39.082ZYES2023 Project PromotionsNOhttps://video.igem.org/w/dZbGnuiRQnhNNcYPxbpzeQhttps://video.igem.org/lazy-static/thumbnails/154231d4-c2aa-401e-b74d-1298d24b4969.jpgINSAENSLyon1: Fighting Antibiotic Resistance (2023) - Project Promotion [Italian]**Title:** Fighting Antibiotic Resistance **Description:** In light of the decreasing effectiveness of treatments against infections and the growing prevalence of antibiotic-resistant bacteria, antibiotic resistance poses a health scourge that we must address without delay. Our team has developed a groundbreaking solution, the SuperBugBuster, committed to combating these bacteria, thereby enabling the world to restore its enduring human, animal, and environmental health. [Wiki](https://2022.igem.wiki/insaenslyon1)https://static.igem.org/peertube/streaming-playlists/hls/6929a685-e326-4008-8fd7-2686c684a01e/e158ac49-dc9b-4ee2-b688-a96de6472953-master.m3u8https://video.igem.org/videos/embed/dZbGnuiRQnhNNcYPxbpzeQ120012023-09-13T08:37:29.199ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nUENPpc1XKqW8bJP13h1aphttps://video.igem.org/lazy-static/thumbnails/c17f241e-12f7-4384-a0c9-2cbeda82dc05.jpgINSAENSLyon1: Fighting Antibiotic Resistance (2023) - Project Promotion [French]**Title:** Fighting Antibiotic Resistance **Description:** In light of the decreasing effectiveness of treatments against infections and the growing prevalence of antibiotic-resistant bacteria, antibiotic resistance poses a health scourge that we must address without delay. Our team has developed a groundbreaking solution, the SuperBugBuster, committed to combating these bacteria, thereby enabling the world to restore its enduring human, animal, and environmental health. [Wiki](https://2022.igem.wiki/insaenslyon1)https://static.igem.org/peertube/streaming-playlists/hls/b16a80f1-58df-4f25-894f-186990e18581/e3dbb5cb-801b-49b0-bfe2-ce4bbb9504ee-master.m3u8https://video.igem.org/videos/embed/nUENPpc1XKqW8bJP13h1ap120032023-09-13T08:37:57.357ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4aWDgPjUAMphuM8ZXKeUmRhttps://video.igem.org/lazy-static/thumbnails/d60372e6-ab78-4417-a991-0572aa8c6604.jpgHUST-China: ElectricO Sisters —— A Solar Microbial Fuel Cells System (2023) - Project Promotion [...**Title:** ElectricO Sisters —— A Solar Microbial Fuel Cells System **Description:** Global warming and the greenhouse effect have emerged as critical and urgent climate crises. One of the key drivers of those issues is the emission of CO2. Among the various contributing factors, the excessive combustion of fossil fuels in industrial facilities stands out as a primary source of CO2 emissions, accounting for approximately one third of the total, which directs our attention to thermal power plants. To relieve the current situation, we HUST-China propose a new strategy. Our approach involves the collaboration between engineered cyanobacteria and Shewanella to concurrently capture CO2 and produce electricity, with the ultimate goal of reducing CO2 emissions and diminishing the need for fossil fuel combustion. [Wiki](https://2022.igem.wiki/hust-china)https://static.igem.org/peertube/streaming-playlists/hls/19aec8dd-6e64-4649-8e8d-823e9e84b5e1/74869684-9bf0-4b81-95fd-a919c155d948-master.m3u8https://video.igem.org/videos/embed/4aWDgPjUAMphuM8ZXKeUmR120012462023-09-13T09:07:27.706ZYES2023 Project PromotionsNOhttps://video.igem.org/w/7ujFn5X1nC3cdGV3R12f6phttps://video.igem.org/lazy-static/thumbnails/f158b028-6e0b-4749-b257-04c002d95b39.jpgAachen: RareCycle - Fungi-Powered Recycling of Rare-Earth Elements from E-Waste ... (2023) - Proj...**Title:** RareCycle - Fungi-Powered Recycling of Rare-Earth Elements from E-Waste for Everyone **Description:** Our world is becoming increasingly technologized but less than 18% of the produced e-waste is properly recycled. Join iGEM Aachen 2023 on their mission to revolutionize the recycling of the valuable Rare-Earth Elements out of electronic waste! With the power of synthetic biology, we develop an effective and sustainable recycling process based on filamentous fungi. We want to create a future where e-waste will be recycled equitably and sustainably - in communities all around the world. [Wiki](https://2022.igem.wiki/aachen)https://static.igem.org/peertube/streaming-playlists/hls/348b2b2d-bafc-4420-968c-6e265e51abf9/1a333b19-58f3-4e8b-8fff-ebf11d839154-master.m3u8https://video.igem.org/videos/embed/7ujFn5X1nC3cdGV3R12f6p12001922023-09-13T09:18:01.524ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4RiMgPV8xMNK8kipXfpJ81https://video.igem.org/lazy-static/thumbnails/585d4a36-31fa-4494-a102-af4a7ae994fe.jpgUM-Macau: GEIG: Gluten Enzymatic Intestinal Guardians (2023) - Project Promotion [English]**Title:** GEIG: Gluten Enzymatic Intestinal Guardians **Description:** We are University of Macau’s 2023 iGEM team! To overcome Celiac Disease, we establish delivery-adhesion system through adhesive protein from marine species to deliver probiotics to the duodenal region , and adhere to epithelial cells for releasing 33-mer amino acid breaking enzyme through the control of NO sensors. By our project, people who suffer from celiac disease can enjoy a more convenient life. [Wiki](https://2022.igem.wiki/um-macau)https://static.igem.org/peertube/streaming-playlists/hls/1f2dd180-ec95-4043-b41b-febc32add696/a4adf034-2bcd-46ae-a220-145bc2caff2e-master.m3u8https://video.igem.org/videos/embed/4RiMgPV8xMNK8kipXfpJ811200422023-09-13T10:01:34.178ZYES2023 Project PromotionsNOhttps://video.igem.org/w/m5zod5fjGgUt8BDqijUPKehttps://video.igem.org/lazy-static/thumbnails/23598c91-df2e-48d3-babe-7b2210bbb629.jpgSVCE-CHENNAI: Agrobuddy- "Lab-grown Heroes on a Microscopic Mission" (2023) - Project Promotion [...**Title:** Agrobuddy- "Lab-grown Heroes on a Microscopic Mission" **Description:** Microplastics in agricultural soil and Pest infestations have been global environmental concerns that pose risks to food security and human health. When these issues are combined, they can have even worse consequences for the environment. We, the team SVCE-CHENNAI, have come up with a novel solution for these two problems. We hope to create a recombinant biopesticide that can degrade microplastics. [Wiki](https://2022.igem.wiki/svce-chennai)https://static.igem.org/peertube/streaming-playlists/hls/a29a523b-a251-4447-b9cf-c24167a86dc7/cf4227a1-2629-41dc-a813-8b30bdb273f1-master.m3u8https://video.igem.org/videos/embed/m5zod5fjGgUt8BDqijUPKe1200342023-09-13T10:27:16.830ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bEpRUS1PgcJzsv55MxmiF6https://video.igem.org/lazy-static/thumbnails/d5a3310e-4135-460c-8bf8-28bde235aea6.jpgAFMU-China: FAT Test (2023) - Project Promotion [English]**Title:** FAT Test **Description:** Our kit utilizes the double-strand DNA cleavage activity of DSN enzymes to achieve linear amplification and trans-acting DNase activities of Cas12a to achieve exponential amplification. We pioneered the DIRENJIE system, which uses designed circular probes to connect the reaction system in series and uses AuNPs to convert microRNA’s content in serum into visible light signals which are analyzed by our App and an simple testing report is provided. [Wiki](https://2022.igem.wiki/afmu-china)https://static.igem.org/peertube/streaming-playlists/hls/56585abc-a830-4cee-8683-40a2f1483d6f/a42d8f32-eb99-499f-83ab-8a8868424620-master.m3u8https://video.igem.org/videos/embed/bEpRUS1PgcJzsv55MxmiF61120362023-09-13T10:32:43.707ZYES2023 Project PromotionsNOhttps://video.igem.org/w/3BgVjJpRhvVoGozBYCzj6Thttps://video.igem.org/lazy-static/thumbnails/020235dc-5d64-4bd1-9ba7-829b92074794.jpgHKGTC: Quorum Sensing System for Microplastics Detection (QSMiD) (2023) - Project Promotion [Engl...**Title:** Quorum Sensing System for Microplastics Detection (QSMiD) **Description:** Nowadays, plastic pollution is a global concern due to its potential to cause ecological and socio-economic harm. Plastics will be broken down into microplastics by nature. The identification of microplastics remains a challenge. Therefore, our team is engineering a whole cell biosensor based on the LasI-LasR system to detect and quantitatively measure the presence of N-acylhomoserine lactone (AHL), a quorum sensing molecule secreted from P. aeruginosa for the microplastic detection. [Wiki](https://2022.igem.wiki/hkgtc)https://static.igem.org/peertube/streaming-playlists/hls/151f1eb3-6641-4f03-897e-6405b0354985/9a8234d1-7463-4c52-849c-85f6a9893a11-master.m3u8https://video.igem.org/videos/embed/3BgVjJpRhvVoGozBYCzj6T12001882023-09-13T10:58:36.714ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4BUDQGF56ZHg1a5sNiWPZthttps://video.igem.org/lazy-static/thumbnails/f2a0c733-9ff1-47e0-a8f2-1f25622990b7.jpgMingdao: Thermostable PCLase-embedded biodegradable PCL plastics (2023) - Project Promotion [Engl...**Title:** Thermostable PCLase-embedded biodegradable PCL plastics **Description:** Biodegradable plastics, notably FDA-approved PCL, are emerging as eco-friendly choices. While PCL decomposes over 2-3 years, materials infused with PCL-degrading lipase (PCLase) are being explored to expedite this. However, the enzyme's efficacy is compromised during 100°C thermoforming. Mingdao iGEM's SpyRing technique cyclizes PCLase, enhancing its thermostability. This pioneering material marks a pivotal move towards environmental sustainability. [Wiki](https://2022.igem.wiki/mingdao)https://static.igem.org/peertube/streaming-playlists/hls/1d4ee568-bd1c-4b6d-92f2-5508bf65c561/abe1109f-3f33-473e-8266-d82f6d106612-master.m3u8https://video.igem.org/videos/embed/4BUDQGF56ZHg1a5sNiWPZt1170582023-09-13T11:55:42.103ZYES2023 Project PromotionsNOhttps://video.igem.org/w/h1cay3apiuPoEw5nLiabh1https://video.igem.org/lazy-static/thumbnails/60038d46-2cac-41fa-a4a3-44c5814a7ab6.jpgTsinghua-A: Algorithm-based Antibody Drugs Design for Various Animal Species (2023) - Project Pro...**Title:** Algorithm-based Antibody Drugs Design for Various Animal Species **Description:** Pets are treasured family members and soulmates, while livestock forms the foundation of human civilization. In the 21st century, with animal medical research lagging and antibiotic misuse threatening livestock, we're inspired by humanized antibody drugs to innovate for various animal species’ antibody drugs. We designed an algorithm to deal with this problem. Here, science and compassion unite, shaping the future together. Trust in technology's power, envisioning a healthier world for every life. [Wiki](https://2022.igem.wiki/tsinghua-a)https://static.igem.org/peertube/streaming-playlists/hls/8199195b-38f0-41ca-a104-c1c1ffcadf40/cf6eb5c4-69b5-44a4-b624-4d799b1701d2-master.m3u8https://video.igem.org/videos/embed/h1cay3apiuPoEw5nLiabh11190452023-09-13T12:17:54.288ZYES2023 Project PromotionsNOhttps://video.igem.org/w/9kiQaF5LJ7ruQ65pthHWSFhttps://video.igem.org/lazy-static/thumbnails/5b10981c-923a-4420-8fb5-1f5f8dcfb2cb.jpgSZU-China: Polycobead——Helping plants resist gray mold (2023) - Project Promotion [English]**Title:** Polycobead——Helping plants resist gray mold **Description:** Gray mold is a kind of vital diseases for tomatoes caused by botrytis cinerea. One day, an “injured” tomato came to iGEMers in SZU-China for help. They gave her the Polycobead which includes an “arm” and a “shield” to fight against the evilest Botrytis cinerea.... Eventually, tomatoes beat Botrytis cinerea down and brought back joy for everyone that loves tomatoes! [Wiki](https://2022.igem.wiki/szu-china)https://static.igem.org/peertube/streaming-playlists/hls/437b3ab4-e0cf-4dfb-aa6e-59b146aff11b/7b66b2c4-fde8-45f6-9441-628df96e8e3a-master.m3u8https://video.igem.org/videos/embed/9kiQaF5LJ7ruQ65pthHWSF12001862023-09-13T12:22:44.085ZYES2023 Project PromotionsNOhttps://video.igem.org/w/djo3ZMKp9m3GDgee1hhrGZhttps://video.igem.org/lazy-static/thumbnails/5939cabf-28bd-4d00-a92b-ab46e3fa2fbd.jpgDuesseldorf: Fungilyzer: Building a biological fertilizing agent (2023) - Project Promotion [Engl...**Title:** Fungilyzer: Building a biological fertilizing agent **Description:** In our project, we are modifying a fungus that can buffer phosphate in soil - Our Fungilyzer. Fungilyzer makes phosphate available in low concentrations of this nutrient to crops by inducing apoptosis. So, when the soil phosphate around the roots reaches a critical level, the fungus will help to avoid crop failure by spreading the buffered phosphate. This system should reduce the amount of phosphate fertilizer that needs to be replaced. [Wiki](https://2022.igem.wiki/duesseldorf)https://static.igem.org/peertube/streaming-playlists/hls/63bea43f-d572-47ed-ae88-79df7a85e00d/207fd9dd-d778-40bd-8b87-cfd8e40f643e-master.m3u8https://video.igem.org/videos/embed/djo3ZMKp9m3GDgee1hhrGZ1110182023-09-13T12:40:30.456ZYES2023 Project PromotionsNOhttps://video.igem.org/w/61eEfFWcFj7J4ictoqBfbDhttps://video.igem.org/lazy-static/thumbnails/c5f57aff-30e8-4f47-8a99-ca8bfefd0f01.jpgBJWZ-China: Waging War on Acne (2023) - Project Promotion [English]**Title:** Waging War on Acne **Description:** Our team uses genetically modified Escherichia coli to absorb excessive vitamin B12 at acne lesions, thereby reducing the synthesis and excretion of porphyrins by acne bacteria, leading to a relief of acne inflammation. This video will introduce viewers to the background and principles of our project, explaining the professional theoretical knowledge in a humorous and entertaining style, in order to promote our project. [Wiki](https://2022.igem.wiki/bjwz-china)https://static.igem.org/peertube/streaming-playlists/hls/28861c7d-7d7f-4279-a7c4-b1fa21b05659/aeac9e8f-bd7c-4a30-b20b-2082dcf3637e-master.m3u8https://video.igem.org/videos/embed/61eEfFWcFj7J4ictoqBfbD1200262023-09-13T12:42:17.006ZYES2023 Project PromotionsNOhttps://video.igem.org/w/3Zqp49Af5fLKGLMKEb88ANhttps://video.igem.org/lazy-static/thumbnails/3c81cb4b-2bd3-4bf1-9557-a99455781409.jpgKUAS-SEOUL: CEApture - Aptamer-based Cervical Cancer Diagnostic System for Sanit... (2023) - Proj...**Title:** CEApture - Aptamer-based Cervical Cancer Diagnostic System for Sanitary Pads **Description:** KUAS introduces a novel solution for early cervical cancer detection using sanitary pads embedded with an aptamer-based diagnostic system, CEApture. Addressing the challenge of easily mistaken symptoms, KUAS offers an easily accessible solution, allowing women to analyze menstrual samples within sanitary pads for the diagnosis. Aptamers reveal cancer cell presence by binding a specific biomarker. The CEApture pad, employing aptamers and the LFA method, empowers women to monitor their health. [Wiki](https://2022.igem.wiki/kuas-seoul)https://static.igem.org/peertube/streaming-playlists/hls/1836b52b-8ece-4e89-9ca0-22c2c62a6096/b8b9f395-1e4c-4c98-9f4a-ac59ff3e20a9-master.m3u8https://video.igem.org/videos/embed/3Zqp49Af5fLKGLMKEb88AN1190272023-09-13T13:00:02.905ZYES2023 Project PromotionsNOhttps://video.igem.org/w/1Pq34ecGDbE7Lxn4eeMJVXhttps://video.igem.org/lazy-static/thumbnails/137c55b0-2091-4700-a0fe-66921a15d87a.jpgUniMuenster: BeeVAX - So the Buzz Does Not Become Silent (2023) - Project Promotion [English]**Title:** BeeVAX - So the Buzz Does Not Become Silent **Description:** Discover how we tackle the Varroa mite, which annually claims 10-15% of bee colonies. Our strategy? BeeVax! Harnessing an entomopathogenic fungus to eliminate Varroa mites while enhancing bee immunity with our optimized Vitellogenin, a carefully crafted egg yolk protein. Bee careful, so the buzz does not become silent. [Wiki](https://2022.igem.wiki/unimuenster)https://static.igem.org/peertube/streaming-playlists/hls/069ec501-b93f-4228-80a9-ac1dec669e59/907e52b9-b137-4d94-a902-bf88a213b1af-master.m3u8https://video.igem.org/videos/embed/1Pq34ecGDbE7Lxn4eeMJVX1200412023-09-13T13:04:22.014ZYES2023 Project PromotionsNOhttps://video.igem.org/w/5CeX6axYQWionqc4Ak2vCXhttps://video.igem.org/lazy-static/thumbnails/405bc942-b874-4e01-bf15-8e968ba3392a.jpgXHD-WuHan-Pro-China: A microplastic treatment device for performing functions of... (2023) - Proj...**Title:** A microplastic treatment device for performing functions of Escherichia coli **Description:** The sea, which is supposed to be clean and clear, is now covered by plastic garbage, and microplastics will endanger human safety with enrichment. In previous studies, we found that surface display technology can display PETase on the surface of engineering bacteria and degrade microplastics in the environment. In order to ensure that the engineering bacteria will not spread in the water, we referred to the content of the Lithuanian igem team in 2022 to express the cellulose-binding protein in the engineering bacteria, and then added the cellulose component to the microplastic treatment device to anchor the engineering bacteria in the microplastic treatment device to prevent biological pollution. In order to protect the freshwater ecosystem, the device can be installed at the entrance of the reservoir or lake to reduce microplastic pollution. [Wiki](https://2022.igem.wiki/xhd-wuhan-pro-china)https://static.igem.org/peertube/streaming-playlists/hls/2573ed5f-5f5b-4208-9c18-c8ba7fa8f74b/f99fb895-1a4f-4f9a-8bc4-38261f33b7f4-master.m3u8https://video.igem.org/videos/embed/5CeX6axYQWionqc4Ak2vCX1190302023-09-13T13:17:01.539ZYES2023 Project PromotionsNOhttps://video.igem.org/w/aYe813NUoSk4SFXecBMT21https://video.igem.org/lazy-static/thumbnails/9c4f38c5-5102-413c-8581-56f34e750f62.jpgKeystone: The Story of BioStone: can she become the best material? (2023) - Project Promotion [En...**Title:** The Story of BioStone: can she become the best material? **Description:** This year, Team Keystone was inspired by microbial-induced calcium carbonate precipitation (MICP): We are dedicated to creating a Living Building Material (LBM) which will be composed of a sand-hydrogel matrix, Synechocystis cyanobacteria and the calcium carbonate it produces. We hope to use this LBM as a "bioconcrete" to replace the traditional concrete and sealant products which lead to significant emissions. We will also take advantage of the cyanobacteria’s innate abilities to absorb carbon dioxide to sequester inorganic carbon in the atmosphere. We engineered the cyanobacteria Synechocystis PCC 6803 to express carbonic anhydrase and designed a surface display system for the enzyme to effectively induce calcium carbonate precipitation, the core material of traditional cement. Precisely, carbonic anhydrase will convert carbon dioxide and water in the environment to hydrogen carbonate and hydrogen ions. The hydrogen carbonate will further react with calcium chloride (artificially supplied in the hydrogel), forming calcium carbonate in the end. The calcium carbonate precipitated is able to fill up the empty spaces and pores within the hydrogel, creating a high-density and low-porous structure that can withstand high levels of pressure––just like traditional building materials. Concrete is everywhere and essential for modern constructions, but concrete production accounts for 8% of the world's carbon emissions, releasing 4 billion tons of carbon dioxide each year. Our ultimate aim is to design an effective bioconcrete product that substitutes traditional concrete and sealant products without compromising structural intensity. We will create a sustainable BioStone for the world that constructs a better shared future. [Wiki](https://2022.igem.wiki/keystone)https://static.igem.org/peertube/streaming-playlists/hls/50bbfc27-b807-43d4-b1f7-3e8a66c4403e/df8f1147-1a0c-4baa-8d68-37c7cccb7eda-master.m3u8https://video.igem.org/videos/embed/aYe813NUoSk4SFXecBMT211190182023-09-13T13:20:38.832ZYES2023 Project PromotionsNOhttps://video.igem.org/w/juFfYAWD9a6e8VKLBxycf4https://video.igem.org/lazy-static/thumbnails/f7295b5b-ccdc-428b-8c36-a3f0a665fdc9.jpgNEU-CHINA: The Marine Metal Guardian: Biofilm for metal corrosion prevention (2023) - Project Pro...**Title:** The Marine Metal Guardian: Biofilm for metal corrosion prevention **Description:** In metal corrosion protection, biofilm can play a role in metal corrosion protection by removing corrosive cathode medium (such as oxygen), inhibiting the growth of corrosive microorganisms, and forming a protective layer on the metal surface. However, one of the shortcomings of biofilm for metal corrosion protection is its weak metal adhesion ability. In the iGEM2023 competition year, the NEU-CHINA team aimed to design a living functional biofilm that can be applied to marine metal corrosion protection. They named it BMCP (Biofilm for metal corrosion prevention). In this project, Escherichia coli amyloid protein CsgA and mussel foot silk protein Mfp were connected by in vitro assembly, aiming at improving the adhesion ability of the biofilm on the surface of metal materials, so as to play the role of corrosion protection better. In addition, the project will finally realize the long-term metal corrosion protection of biofilm by means of biomineralization. [Wiki](https://2022.igem.wiki/neu-china)https://static.igem.org/peertube/streaming-playlists/hls/95c583e2-1393-47c9-bd6a-d3ac44e2f00b/aa1870d2-9c41-484b-8a96-ad6a0619409d-master.m3u8https://video.igem.org/videos/embed/juFfYAWD9a6e8VKLBxycf41200302023-09-13T13:21:53.267ZYES2023 Project PromotionsNOhttps://video.igem.org/w/vcJBZ91ce4E23aHbuJxFnmhttps://video.igem.org/lazy-static/thumbnails/07c7cc91-e2d5-43af-91fe-3dcd74559c27.jpgThessaly: oPHAelia (2023) - Project Promotion [English]**Title:** oPHAelia **Description:** Olive Oil Mill Wastewater (OMW) is a toxic by-product of olive oil production. Greece is the third-largest olive oil producer globally, and our region, Thessaly, significantly contributes to this production, generating substantial quantities of OMW each year. The absence of effective OMW management methods has posed challenges for olive oil producers, often resulting in improper disposal that threatens the environment. Recognizing this issue, iGEM Thessaly 2023 took the initiative of proposing a solution: oPHAelia, an innovative approach with the dual objective of detoxifying OMW and harnessing its potential to produce a high-value product called Polyhydroxyalkanoates (PHAs). PHAs can be further utilized as biodegradable bioplastics, thus combatting the pressing issue of plastic pollution. oPHAelia represents a sustainable solution, aiming to change how we treat industrial waste. [Wiki](https://2022.igem.wiki/thessaly)https://static.igem.org/peertube/streaming-playlists/hls/ec7c77e8-148d-44df-b55e-c6b71fdea04a/5ec748ce-baab-4779-85f2-094cb7d2646b-master.m3u8https://video.igem.org/videos/embed/vcJBZ91ce4E23aHbuJxFnm1200832023-09-13T13:22:27.223ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6vFW8CsA2Ri3F8Hc6cLsLzhttps://video.igem.org/lazy-static/thumbnails/adc23647-954d-45d4-b77c-9b4f4caef346.jpgHZAU-China: C.A.T: Cat Allergic Therapy (2023) - Project Promotion [English]**Title:** C.A.T: Cat Allergic Therapy **Description:** Feline allergies are a common source of allergens, affecting up to 15% of adults and children and causing symptoms from allergic rhinitis to severe asthma. Sensitization to the major feline allergen, Fel d 1 (Felis domesticus allergen 1), elicits IgE responses in >90% of cat-allergic individuals. Feline allergens are mainly produced by the salivary, and when cats groom themselves, Fel d 1 is transferred from saliva to their hair, and cat dander containing Fel d 1 allergen is then spread to the environment as small airborne particles. To overcome the shortcomings of the current therapies against feline allergic disease, the HZAU-China team designed C.A.T: Cat Allergic Therapy. As a novel therapy for cat allergy, the chassis bacteria, genetically programmed to adhere to the saliva pellicle of cats, produce two single-chain fragment variables (scFvs) and secrete them outside the cell. These scFvs block the immune response caused by the antigen and prevent allergies. The project aims to develop an edible probiotic cat strips, which is expected to be used for prevention and treatment of feline allergy. It provides a new idea for feline allergy of low side effect and high universality. We sincerely hope our idea can give those allergic cat lover a chance to have a cat to enrich their lives release their pressure and hug the fantastic world. [Wiki](https://2022.igem.wiki/hzau-china)https://static.igem.org/peertube/streaming-playlists/hls/2ca2df55-b9cc-4c2d-a9c8-220a31a3eab1/c1482779-af24-40a0-b922-d2c3ad7da0f7-master.m3u8https://video.igem.org/videos/embed/6vFW8CsA2Ri3F8Hc6cLsLz1200502023-09-13T13:47:32.580ZYES2023 Project PromotionsNOhttps://video.igem.org/w/s4QPk4khQpSFbVRA6uhv8Zhttps://video.igem.org/lazy-static/thumbnails/3881d25e-8444-4f09-a9bf-ef012ad0dfe5.jpgUTokyo: SWIFT: a sensor-enhanced, wide-ranging, instant-response, fast-acting, t... (2023) - Proj...**Title:** SWIFT: a sensor-enhanced, wide-ranging, instant-response, fast-acting, target-secretion system **Description:** SWIFT will detect the high concentration of cytokine such as IL-6, IL-1, IFN-gamma and emit tranducers of IL-6 or IL-1 beta. Our main project is about the detection of IL-6 and release of soluble isoform of gp130, so we explain our system based on this. First, MESA system releases HRV3C or PPV when IL-6 receptor and gp130 become dimer reacting to IL-6 . Secondary, proteases of MESA output will be amplified to achieve enough output while avoiding leakiness of MESA. Then, the protein of interest (in this case soluble isoform of gp130 as transducer of IL-6) is released by HRV3C or PPV cutting off the ER retention tag. SWIFT can be applied to other situation; responding to other antigens and resulting quick secretion. [Wiki](https://2022.igem.wiki/utokyo)https://static.igem.org/peertube/streaming-playlists/hls/d316eb9f-a54e-4162-a5eb-7370d73ea743/bf06e8ce-c311-40cc-9f39-ac41b323f662-master.m3u8https://video.igem.org/videos/embed/s4QPk4khQpSFbVRA6uhv8Z1200542023-09-13T13:53:01.110ZYES2023 Project PromotionsNOhttps://video.igem.org/w/31p7QWmdX9Anv6n27PNXJLhttps://video.igem.org/lazy-static/thumbnails/1da3849c-f7d8-4922-8efd-bb7a51225a29.jpgUNILausanne: Plasticbusters - Biofilm capturing microplastics (2023) - Project Promotion [English]**Title:** Plasticbusters - Biofilm capturing microplastics **Description:** There is currently no existing solution to efficiently remove microplastics from water bodies. To address this issue, we engineered a filter composed of a bacterial Escherichia coli biofilm. We modified the Curli fiber, the primary protein component of the biofilm matrix to specifically bind microplastics. Our goal is to provide an innovative solution that ensures the protection and conservation of our aquatic ecosystems. [Wiki](https://2022.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/10408637-ee67-4dbf-812e-ea1cf74a950c/4b807eb8-71ae-4339-9b9a-45198f3cccc5-master.m3u8https://video.igem.org/videos/embed/31p7QWmdX9Anv6n27PNXJL12002232023-09-13T13:59:34.856ZYES2023 Project PromotionsNOhttps://video.igem.org/w/914UnsKQFXrT4uScVjWTRLhttps://video.igem.org/lazy-static/thumbnails/3e434e8d-2ea2-4418-87c3-76e1096ee8a5.jpgBPI-China: Detection of mutiple miRNAs based on isothermal amplification on coll... (2023) - Proj...**Title:** Detection of mutiple miRNAs based on isothermal amplification on colloidal gold and CRISPR technology **Description:** Myocardial infarction is a common disease worldwide. There are approximately 330 million current heart attack victims in China. miRNA was considered as one of the most potential new biomarkers of myocardial infarction.Therefore, the development of miRNA detection methods is of great significance. The design idea of this project was to modify the hairpin structure on the surface of colloidal gold particles, and then the target miRNA could open the hairpin structure to initiate isothermal amplification reaction. By constructing Cas12a and crRNA vectors, the reverse cleavage function of CRISPR technology was used to release fluorescent signals and complete miRNA detection. This project would establish a fast and convenient miRNA detection method based on CRISPR, helping people to conveniently and efficiently detect miRNAs and contribute to myocardial infarction prevention. [Wiki](https://2022.igem.wiki/bpi-china)https://static.igem.org/peertube/streaming-playlists/hls/40cb83b9-57e1-4c34-bfa2-78a537f992e2/9bcb5f87-c3f0-4b3c-961b-4341c6ee81f0-master.m3u8https://video.igem.org/videos/embed/914UnsKQFXrT4uScVjWTRL990482023-09-13T14:07:28.269ZYES2023 Project PromotionsNOhttps://video.igem.org/w/1TdiL9zaPMZLtCF6xiUg1ehttps://video.igem.org/lazy-static/thumbnails/2b7afc75-043c-484b-b707-4e00e42b7e82.jpgBIT-China: Lights Control Intermixing Terpenoid (2023) - Project Promotion [English]**Title:** Lights Control Intermixing Terpenoid **Description:** Sandalwood and ambergris stand out for their captivating fragrances, limited availability, and the intricate collection process even with modern chemical methods. Instead of relying on polluting and inefficient chemical synthesis, we have chosen to harness the power of biosynthesis in our laboratory to create these two fragrances. Furthermore, we utilize advanced light control methods to precisely blend these fragrances in the perfect ratio. [Wiki](https://2022.igem.wiki/bit-china)https://static.igem.org/peertube/streaming-playlists/hls/07268429-152f-4013-a034-cf45ad73d479/9b2edc3d-019f-4e54-8b26-e01b17c7fe78-master.m3u8https://video.igem.org/videos/embed/1TdiL9zaPMZLtCF6xiUg1e1190552023-09-13T15:22:56.037ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kkrXTg1EjkUUZaUMPv97TFhttps://video.igem.org/lazy-static/thumbnails/19f53d5b-38cd-4b7e-a89e-3eae3e8a1d91.jpgHongKong-JSS: Bioengineered E. coli for Formaldehyde Detection (2023) - Project Promotion [English]**Title:** Bioengineered E. coli for Formaldehyde Detection **Description:** This project aims to create a bioengineered E. coli strain capable of detecting formaldehyde using synthetic biology techniques. By incorporating formaldehyde-sensitive promoters into the bacteria's genetic circuit, we can develop a living sensor that produces a measurable output, such as fluorescence or color change, in response to formaldehyde. #formaldehyde [Wiki](https://2022.igem.wiki/hongkong-jss)https://static.igem.org/peertube/streaming-playlists/hls/9c94c449-f335-4817-8a16-4a7edfb82d3d/3a19be1e-63bb-4fa8-bc15-66b20c05c9d2-master.m3u8https://video.igem.org/videos/embed/kkrXTg1EjkUUZaUMPv97TF1200982023-09-13T15:24:16.628ZYES2023 Project PromotionsNOhttps://video.igem.org/w/54K3RtMHrwKXduitgnNfcfhttps://video.igem.org/lazy-static/thumbnails/ec480276-fd7c-4504-8e9f-68c9f781878a.jpgPuiChing-Macau: Carcinogen detectors: building DNA damage biosensors to support ... (2023) - Proj...**Title:** Carcinogen detectors: building DNA damage biosensors to support cancer prevention **Description:** Cancer is one of the most life-threatening diseases around the world. The extensive amount of DNA damage caused by carcinogens such as UV leads to higher risks of getting cancer. To identify carcinogens, current methods require long-term testing trials which are time-consuming. To address this problem, we developed two systems making use of the DNA repairing mechanisms in cells: (1) a mammalian cell based FRET system and (2) an E. coli based GFP reporting system. We hope these systems, serving as novel carcinogen biosensors, could help us identify carcinogens quickly and thereby lower cancer cases in the future. [Wiki](https://2022.igem.wiki/puiching-macau)https://static.igem.org/peertube/streaming-playlists/hls/20ea50e2-88e3-4c57-ba69-3188759ae7a4/db6bd917-932b-48a5-9bf7-c3c390fb23f4-master.m3u8https://video.igem.org/videos/embed/54K3RtMHrwKXduitgnNfcf1210832023-09-13T15:24:47.578ZYES2023 Project PromotionsNOhttps://video.igem.org/w/erjophqzkMRadQw7PACTFvhttps://video.igem.org/lazy-static/thumbnails/ed1f5279-4297-4691-9af2-20cdad77fed7.jpgNanjing-China: Rainboweaver, we're on the road (2023) - Project Promotion [English]**Title:** Rainboweaver, we're on the road **Description:** Through our visits and research, we have discovered that the most polluting stage lies in the extraction of dyes, and textile production and dyeing are typically considered as two separate steps. Therefore, we, Nanjing-China, are combining fabric production and dye synthesis in a single bioreactor or cell factory. We use Komagataeibacter xylinus and Corynebacterium glutamicum to obtain colorful bacterial cellulose, which has higher tensile properties and a denser spatial structure. It is also harmless to the human body and the environment. [Wiki](https://2022.igem.wiki/nanjing-china)https://static.igem.org/peertube/streaming-playlists/hls/6ccfba4d-ac1d-45de-bc94-f59a00bccdbf/ac5a448c-1697-4fb1-94f7-b347db8cd35f-master.m3u8https://video.igem.org/videos/embed/erjophqzkMRadQw7PACTFv1200862023-09-13T15:25:19.406ZYES2023 Project PromotionsNOhttps://video.igem.org/w/qPuTTsx6hyyBUAgp1U3BiMhttps://video.igem.org/lazy-static/thumbnails/1698aa78-1a70-4653-b7a3-bd7ee9f4e256.jpgParis-Bettencourt: Lubritect: lubricating protection against STIs (2023) - Project Promotion [Eng...**Title:** Lubritect: lubricating protection against STIs **Description:** While there has been great effort to producing preventative and therapeutic options against sexually transmitted infections, condoms remain the only true preventative option for most. One that is effective, but not without its flaws. We hope to develop the basis for a modular multi-target protective lubricant against STIs, using AI-assisted de novo protein designs with a biological lubricant base, to entrap pathogens and reduce their rate of cell entry. [Wiki](https://2022.igem.wiki/paris-bettencourt)https://static.igem.org/peertube/streaming-playlists/hls/c8fd178a-f260-477d-9fb3-3e63b35daec3/e3f967c2-b0ec-467a-bd6b-749092ea5718-master.m3u8https://video.igem.org/videos/embed/qPuTTsx6hyyBUAgp1U3BiM1160962023-09-13T15:31:51.906ZYES2023 Project PromotionsNOhttps://video.igem.org/w/m3o7h6m7bXKBLvsc5Wtu9uhttps://video.igem.org/lazy-static/thumbnails/c3e1f31d-c3d5-4518-a205-568a2d6f0c66.jpgSCU-China: SRBioQuencher (2023) - Project Promotion [English]**Title:** SRBioQuencher **Description:** Sewer is the city’s vein, draining the filth, isolating diseases, and providing convenience and health to every resident. But, the labyrinth of pipes also bring us potential risks. Hydrogen sulfide produced by sulfide-reducing bacteria(SRB) is one of the most critical factors. Team SCU-China 2023 aims to solve the safety problem caused by SRB by developing an engineered E. coli agent, SRBioQuencher. [Wiki](https://2022.igem.wiki/scu-china)https://static.igem.org/peertube/streaming-playlists/hls/a24be2ab-00c8-429e-8c1b-d6495651aab4/e566f3aa-2a2d-42bf-8d01-e2038e489b7e-master.m3u8https://video.igem.org/videos/embed/m3o7h6m7bXKBLvsc5Wtu9u1200262023-09-13T16:07:28.775ZYES2023 Project PromotionsNOhttps://video.igem.org/w/qEamuHZ9gnN5qWWFZC4o9Ghttps://video.igem.org/lazy-static/thumbnails/aed3c696-ed9c-4271-8b50-ff0c3883e115.jpgJLU-China: Defeating Pseudomonas aeruginosa: The Wonder of Contact Lens Safety (2023) - Project P...**Title:** Defeating Pseudomonas aeruginosa: The Wonder of Contact Lens Safety **Description:** In 2023, JLU-CHINA introduces an innovative contact lens care solution that incorporates the DMBT1 protein into the contact lens care fluid. This groundbreaking approach enhances the safety of eye care, revolutionizing the field of eyeglass maintenance and pushing it towards new advancements. The integration of DMBT1 protein brings a significant improvement in the overall effectiveness and reliability of lens care, ensuring healthier and safer eye maintenance. [Wiki](https://2022.igem.wiki/jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/c7af5af6-04fa-4391-a27b-5a58f9cc7928/7c1f87cd-025f-4ece-83de-bb2954282bee-master.m3u8https://video.igem.org/videos/embed/qEamuHZ9gnN5qWWFZC4o9G1190332023-09-13T16:11:36.063ZYES2023 Project PromotionsNOhttps://video.igem.org/w/iW8jJhtcyT8Ao6fdkuHKwVhttps://video.igem.org/lazy-static/thumbnails/a720d3c9-5ff7-4275-bb96-3886e2d3c196.jpgHBUT-China: Engineering Corynebacterium glutamicum by CRISPR-Cas12a editing syst... (2023) - Proj...**Title:** Engineering Corynebacterium glutamicum by CRISPR-Cas12a editing system to realize the efficient synthesis of lycopene **Description:** This video delves into lycopene and its potential applications in various industries. It discusses the genetic engineering of Corynebacterium glutamicum to produce higher quantities of lycopene using CRISPR-Cas12a gene editing technology. Additionally, it highlights the use of crop straw as a renewable carbon source. The video also emphasizes the importance of community outreach and education in spreading synthetic biology. Join us on their journey to unlock lycopene's potential! [Wiki](https://2022.igem.wiki/hbut-china)https://static.igem.org/peertube/streaming-playlists/hls/913a08a0-f71b-4ff0-8786-76a237694415/b470bca2-fe2b-4a1b-a4ec-e614e2c60a9a-master.m3u8https://video.igem.org/videos/embed/iW8jJhtcyT8Ao6fdkuHKwV1200922023-09-13T16:27:31.527ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pAW8jDqjzmffGetDzuv3wfhttps://video.igem.org/lazy-static/thumbnails/e418187c-6ce6-489b-8397-a2803b0e1565.jpgTianjin: Wind-up cell: A novel microbial biocontainment system using a kill swit... (2023) - Proj...**Title:** Wind-up cell: A novel microbial biocontainment system using a kill switch based on epigenetic modification and CRISPRi. **Description:** With the widespread use of synthetic biology in various fields, the risk of spreading genetically modified microorganisms into the environment cannot be ignored. In our project, Wind-up Cell, we have developed a novel kill switch and integrated it with biosensor to create a safer whole-cell test paper. Through our project, we hope to make the use of synthetic biology safer and more extensive. [Wiki](https://2022.igem.wiki/tianjin)https://static.igem.org/peertube/streaming-playlists/hls/bf22d576-3eb1-4524-a574-279c69b196ca/0b835834-3a8d-4480-a4c9-8efa95ea4db8-master.m3u8https://video.igem.org/videos/embed/pAW8jDqjzmffGetDzuv3wf1170252023-09-13T16:28:36.191ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pyJpK8394vfWXQcGiahNpZhttps://video.igem.org/lazy-static/thumbnails/555033c2-7087-4bd5-b547-92c2aec947ab.jpgSquirrel-CHN-II: Dream or truth? (2023) - Project Promotion [English]**Title:** Dream or truth? **Description:** Such a dream this is, a long one indeed, so vivid, unable to break free. Confrontation is not the true strength, acceptance is. People are prone to feel depressed, yet true optimism requires a lot of wisdom and courage. But don't forget that you can always choose to be happy in times of pain. The tide rises and falls, and a new wave will once again take you ashore, turning you into the newly reborn. This is just a dream, which you will eventually wake up from. [Wiki](https://2022.igem.wiki/squirrel-chn-ii)https://static.igem.org/peertube/streaming-playlists/hls/bed42022-4237-4fb8-8fac-a5d3f392d517/30db27aa-0f96-4e49-91d3-0dc6cbee08ae-master.m3u8https://video.igem.org/videos/embed/pyJpK8394vfWXQcGiahNpZ1180442023-09-13T16:34:01.063ZYES2023 Project PromotionsNOhttps://video.igem.org/w/okJn9PFd6Mp7UEP4mfXmPvhttps://video.igem.org/lazy-static/thumbnails/4de11539-9d4f-445f-a773-32d395e49ebb.jpgXMU-China: Naiads - Novel anti-icing and anti-drought solutions (2023) - Project Promotion [English]**Title:** Naiads - Novel anti-icing and anti-drought solutions **Description:** Naiads, the Greek goddess upholding water, cooperates with XMU-China to solve soil problems this year. For soil frost, the engineered bacteria are used to produce antifreeze proteins under low temperature. For soil drought, the water-retention compounds produced by our biofactory are used. With the two mighty tools, the normal progress of agriculture can be ensured. [Wiki](https://2022.igem.wiki/xmu-china)https://static.igem.org/peertube/streaming-playlists/hls/b4ea4a52-502a-4f5f-ac11-8e94c228c5cb/42ff691a-fdc7-411d-834e-4bbe0e5ce864-master.m3u8https://video.igem.org/videos/embed/okJn9PFd6Mp7UEP4mfXmPv12001882023-09-13T16:37:47.996ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oj1kJTono4ThTSVibENeCkhttps://video.igem.org/lazy-static/thumbnails/e29fa3ba-ab4a-482a-9d9e-04055ae7ab09.jpgHKSSC: How is the disease melioidosis prevented by using our innovative E. coli ... (2023) - Proj...**Title:** How is the disease melioidosis prevented by using our innovative E. coli biosensor **Description:** On August 15, 2022, an outbreak of Melioidosis in Hong Kong gained much attention. 43 were tested positive, breaking the highest record of the years (Heung & Heung, 2022). It is caused by a gram-negative bacterium., Burkholderia pseudomallei. The bacteria often contaminate large bodies of water, soil or transmit it into the air. It is an opportunistic pathogen, infecting mammals with the disease. The symptoms include pneumonia, fever, chest pain, weight loss, headache and many more. (Barman et al., 2011). Humans get infected upon contacting the contaminated source.     Researchers have tried numerous tactics to tackle the disease Melioidosis, but unfortunately, conventional therapy has proven futile. It is a multidrug resistant and efflux pump to pump the undesired antibiotics out of cytoplasm (Alav et al., 2018), The clinical therapy for Melioidosis could last for as long as 20 days (Barman et al., 2011). And therefore an efficient and effective alternative way to prevent the spreading of B. pseudomallei is urgently needed.   There are quite a few factors leading to the microorganism’s virulence, including biofilm (Remy et al., 2020). The biofilm encloses many contents inside, including bacteria cells, glucose, fiber protein and signal molecules. This signal molecule primarily includes AHL, N-acylhomoserine lactone is a multispecies protein (Wu et al., 2021). It enables cells within the biofilm to communicate with one another, thus regulating cell population density in the biofilm. Previous studies have shown direct correlation between AHL and biofilm formation; as AHL concentration decreases, the rate at which the formation of biofilm occurs slows down (Remy et al., 2020).    We are proposing to design an engineered biosensor model to counter measure for this issue. Our aim is to reduce the virulence of the bacterium by cleaving AHL molecules. To avoi...https://static.igem.org/peertube/streaming-playlists/hls/b4aca5eb-17a9-4c18-831c-df4db9146d9f/16828d77-d6ce-480b-a454-482fdc35897c-master.m3u8https://video.igem.org/videos/embed/oj1kJTono4ThTSVibENeCk1120102023-09-13T16:44:17.259ZYES2023 Project PromotionsNOhttps://video.igem.org/w/3JB1ZuHUqjGwN29Jy4e656https://video.igem.org/lazy-static/thumbnails/eff74431-1f32-40fa-a010-b4c6c13ca344.jpgTokyoTech: STAND UP (2023) - Project Promotion [English]**Title:** STAND UP **Description:** Our goal is to contribute to the achievement of SDGs, specifically Goal 3 and 10. To tackle the rising incidence of dengue fever, affecting 96 million people annually, we at iGEM TokyoTech developed a low-cost, high-sensitivity, high-throughput testing method. Our system utilizes glowing cells and an enhanced PCR assay to identify both past and current infections. By sharing this data with the public and governments, our aim is to promote good health for everyone and eliminate health inequalities. [Wiki](https://2022.igem.wiki/tokyotech)https://static.igem.org/peertube/streaming-playlists/hls/16251880-66ce-47a4-8d7f-c680748af159/6d61cdbd-6907-4e79-8479-34cdc36246f0-master.m3u8https://video.igem.org/videos/embed/3JB1ZuHUqjGwN29Jy4e6561200472023-09-13T16:45:30.845ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eBPaoeNBbfChpyrmtLRc8Mhttps://video.igem.org/lazy-static/thumbnails/f07ed349-14b2-4005-9de7-41ee22d005a6.jpgUni-Padua-IT: PASTA - Phage Assisted Silencing Tool against Antimicrobial resist... (2023) - Proj...**Title:** PASTA - Phage Assisted Silencing Tool against Antimicrobial resistance **Description:** Antimicrobial resistance is a sanitary emergency that threatens public health, having impact both on a global and local scale. Infact, our country is one of the most menaced by resistant infections, and the situation is getting worse. That's why we thought of P. A. S. T. A. In this video, we will show the features of our tool and its potentials. [Wiki](https://2022.igem.wiki/uni-padua-it)https://static.igem.org/peertube/streaming-playlists/hls/6e46e625-9ad4-4d56-8949-e7843b8b5417/c2b0ef32-f4d0-4276-970f-edd7bccd685e-master.m3u8https://video.igem.org/videos/embed/eBPaoeNBbfChpyrmtLRc8M12001632023-09-13T17:10:38.750ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2993GjusCByY6ZfYLXY4C6https://video.igem.org/lazy-static/thumbnails/302406eb-c059-4528-a0a5-0f94dbc501dc.jpgGEMS-Taiwan: Cure-All Reef: An efficient biofilm-based probiotic delivery mechan... (2023) - Proj...**Title:** Cure-All Reef: An efficient biofilm-based probiotic delivery mechanism targeting corals **Description:** Probiotics have been found to improve coral health and resilience; however, an efficient and sustainable delivery mechanism has yet to be developed. To tackle this pressing challenge, iGEM GEMS-Taiwan has developed Cure-All Reef - an innovative approach incorporating biofilm to adhere the probiotics to corals long enough for them to integrate into the coral holobiont. With Cure-All Reef, we hope to conserve corals and restore the vibrant beauty of the sea. [Wiki](https://2022.igem.wiki/gems-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/093c0c31-9f21-4350-9c82-6f7750004a49/19288320-d773-478d-83e2-08c1a06a113f-master.m3u8https://video.igem.org/videos/embed/2993GjusCByY6ZfYLXY4C611803432023-09-13T17:35:25.954ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bsz5iGfu4k8sNbiaQ59Jpshttps://video.igem.org/lazy-static/thumbnails/eb559e8d-035f-46a0-aa63-cae74a1b7626.jpgYale: De Novo Biosynthesis of Daidzein in E. coli (2023) - Project Promotion [English]**Title:** De Novo Biosynthesis of Daidzein in E. coli **Description:** At the Yale iGEM team, we're harnessing the gut microbiome's potential. Equol, a health-boosting phytoestrogen, is naturally produced by only 25-50% of humans. Building on last year's work, we're now engineering E. coli to produce daidzein, equol's precursor, from glucose. This innovation could revolutionize equol production and lead to cost-effective supplements. Our vision? A future where everyone can access equol's benefits, irrespective of their natural microbiota. Dive into our scientific journey with us! [Wiki](https://2022.igem.wiki/yale)https://static.igem.org/peertube/streaming-playlists/hls/54b11b7a-5604-4ee8-a5b2-7146765d7178/864d88bc-b9aa-4584-aa59-24dd6ed30276-master.m3u8https://video.igem.org/videos/embed/bsz5iGfu4k8sNbiaQ59Jps1200232023-09-13T18:55:17.563ZYES2023 Project PromotionsNOhttps://video.igem.org/w/k6HNzSRnr1K4kNEecxKC94https://video.igem.org/lazy-static/thumbnails/ec043f00-9f32-4bb6-8404-0d1e9f04a478.jpgWrightState-OH: "Deconta-Mn-ate" For Manganese remediation (2023) - Project Promotion [English]**Title:** "Deconta-Mn-ate" For Manganese remediation **Description:** Our 2022 iGEM team designed an E.coli based biosensor for the detection of manganese contamination down to 0.6 ppm, very close to the 0.3 ppm threshold deemed unsafe by the World Health Organization. Our 2023 team is building upon this prior success by re-engineering the sensor for improved performance and fieldability. [Wiki](https://2022.igem.wiki/wrightstate-oh)https://static.igem.org/peertube/streaming-playlists/hls/9aaa1d92-2124-4c75-a962-c27a01be62ab/8a2d38ef-b47f-4b44-9fc6-341bf2d549f5-master.m3u8https://video.igem.org/videos/embed/k6HNzSRnr1K4kNEecxKC941130402023-09-13T19:56:53.609ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gKFnLSQQ7WXVwLnK2DLGu5https://video.igem.org/lazy-static/thumbnails/48064b82-63f0-4d89-91e4-0c2c147c7927.jpgFAU-Erlangen: GLOW.coli_Erlangen (2023) - Project Promotion [English]**Title:** GLOW.coli_Erlangen **Description:** The iGEM Team 2023 from FAU Erlangen-Nürnberg is embarking on a project to revolutionize the detection of short-chain-fatty-acids (SCFAs) in the gut. SCFAs are vital for intestinal health, a change in SCFA ratios is associated with inflammatory bowel diseases. Our aim is to develop an accessible, cost-effective organic detection system that accurately quantifies SCFAs and differentiates between Acetate, Butyrate, and Propionate. This innovative approach involves engineering transgenic bacteria with specialized inducible promoters and fluorescent markers that activate upon encountering SCFAs. The potential applications of this breakthrough span from stool and blood analysis to saliva and sweat samples, promising a game-changing diagnostic tool. [Wiki](https://2022.igem.wiki/fau-erlangen)https://static.igem.org/peertube/streaming-playlists/hls/7f9253f5-b500-4051-af30-79fd3f19590c/afe5d95d-0088-49b7-a27d-4d7278147e8a-master.m3u8https://video.igem.org/videos/embed/gKFnLSQQ7WXVwLnK2DLGu51180262023-09-13T20:25:12.148ZYES2023 Project PromotionsNOhttps://video.igem.org/w/f2dUhFnLuQsRbuMKJ37pvPhttps://video.igem.org/lazy-static/thumbnails/612e9e3f-286f-4926-8bcc-663b7aedac18.jpgBonn-Rheinbach: NitraNix: Less Nitrate in Water (2023) - Project Promotion [English]**Title:** NitraNix: Less Nitrate in Water **Description:** Our project addresses nitrate pollution in groundwater, a persistent issue in Germany since 2008. Nitrate poses health risks, especially to vulnerable populations. Existing preventive methods like "Wasser-bildung" lack effectiveness. We propose a novel denitrification system using enzymes from native bacteria, avoiding GMO release. Our approach involves catalytic enzymes, biochemical assays, and electrode-based electron supply. With growing fertiliser use and urban expansion, our biotechnology solution holds promise. [Wiki](https://2022.igem.wiki/bonn-rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/718ba2c6-eafc-4fab-8f42-bfad1843718d/64ebfa1e-0b54-4e9b-baa4-7f3aa75456bb-master.m3u8https://video.igem.org/videos/embed/f2dUhFnLuQsRbuMKJ37pvP1200482023-09-13T20:27:29.727ZYES2023 Project PromotionsNOhttps://video.igem.org/w/3tWp12q3jpB4r5JrhrQ1P3https://video.igem.org/lazy-static/thumbnails/b80d930e-4974-4a58-afc6-de3a6490ccb0.jpgCNAS-Romania: A journey towards combating climate change (2023) - Project Promotion [English]**Title:** A journey towards combating climate change **Description:** Cyanobacteria, also called blue-green algae, are one of the first organisms on Earth. These primitive bacteria produce oxygen during photosynthesis, as a result of fixing carbon dioxide dissolved in water. As cyanobacteria has a rapid multiplication rate, it can form blooms that, in some cases, release toxic compounds such as cyanotoxins. We aimed to engineer cyanobacteria in order to make use of these otherwise harmful blooms. Moreover, we carefully studied them by measuring their mutiplication rate and adaptability to different mediums. This short video entails our journey towards finding ideas and inspiration but also shows our work and effort in order to achieve our goals. [Wiki](https://2022.igem.wiki/cnas-romania)https://static.igem.org/peertube/streaming-playlists/hls/1418e1d6-956f-4d3f-9dc6-01211be5e9f8/af5c77f6-396f-4887-af54-dfb860dc2c92-master.m3u8https://video.igem.org/videos/embed/3tWp12q3jpB4r5JrhrQ1P3940452023-09-13T20:28:16.706ZYES2023 Project PromotionsNOhttps://video.igem.org/w/xjSjtEaU32h5m56SE1oTnehttps://video.igem.org/lazy-static/thumbnails/b265ace6-4568-42c9-a783-9e06156089bc.jpgRPTU-Kaiserslautern: CYPurify – The Solution to Pollution (2023) - Project Promotion [English]**Title:** CYPurify – The Solution to Pollution **Description:** We believe to have discovered the "Solution to Pollution!" Chlamydomonas reinhardtii – incredibly small, yet if given the right toolset incredibly powerful. We, Team CYPurify for Kaiserslautern in Germany intend to do just that. Handing our unicellular green algae the tools it needs to combat water pollution: Cytochrome P450 enzymes. These super versatile and ubiquitous enzymes will transform our algae into super-algae and help save the world from dangerous water pollutants. [Wiki](https://2022.igem.wiki/rptu-kaiserslautern)https://static.igem.org/peertube/streaming-playlists/hls/fdadb23c-a9c2-4475-b80f-8d3e649fd12b/34d9fdd5-fabd-42ee-b317-7f0fc3f2af32-master.m3u8https://video.igem.org/videos/embed/xjSjtEaU32h5m56SE1oTne1180392023-09-13T20:36:24.133ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gTMYRo9pnZTgiZk5ZDLyrLhttps://video.igem.org/lazy-static/thumbnails/3d97c4a4-8198-4edd-9c1d-a26a1ed41bd7.jpgHongKong-CUHK: ECOTURE - ECO-friendly for a better fuTURE | A multi-enzymatic mi... (2023) - Proj...**Title:** ECOTURE - ECO-friendly for a better fuTURE | A multi-enzymatic mixed waste plastic degradation study **Description:** Paper based alternatives are composed of mixed materials, commonly with plastic laminated paper products by Polyethylene (PE) and Perfluoroalkoxy alkanes (PFAs) are getting popular to replace plastic products. Our project aims to develop a recycling method to biodegrade PE and PFA mixed wastes that maximize protein yield through optimizing transcription process of the enzymes Laccase, MnP (Manganese Peroxidase) and LiP (Lignin Peroxidase) by adjusting the spatial distances between the RBS site and start codon, making more mixed wastes to be easily recycled. [Wiki](https://2022.igem.wiki/hongkong-cuhk)https://static.igem.org/peertube/streaming-playlists/hls/80b45935-84a8-414b-b766-c565071fd4a6/d17f4bb4-2b5d-4199-b12d-24b9f86a147b-master.m3u8https://video.igem.org/videos/embed/gTMYRo9pnZTgiZk5ZDLyrL1190122023-09-13T20:43:45.138ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hXcjjdQ5D9Sno2yGPY9cn5https://video.igem.org/lazy-static/thumbnails/aabc9d9a-ab62-4c15-83e2-6a60fc2dbe11.jpgIOANNINA: IRIS:Unleasing the light within (2023) - Project Promotion [English]**Title:** IRIS:Unleasing the light within **Description:** Our project is tackling the challenge of cancer treatment, by combining the recently emerging Bacteria-Mediated Tumor Therapy with the widely used Photodynamic Therapy (PDT). Our objective is to create a bacterial machine, capable of performing targeted Photodynamic Therapy against cancerous solid tumors. Utilizing the luciferin-luciferase system, we are eliminating the need for external light administration and expanding the potential of Photodynamic Therapy for treating solid tumors. [Wiki](https://2022.igem.wiki/ioannina)https://static.igem.org/peertube/streaming-playlists/hls/89471978-89f1-4519-92e0-2f36c93d6572/9f4e0bcf-d9bb-4887-8797-b371113a78dd-master.m3u8https://video.igem.org/videos/embed/hXcjjdQ5D9Sno2yGPY9cn51200212023-09-13T20:55:35.099ZYES2023 Project PromotionsNOhttps://video.igem.org/w/wE5jQaEye1GGqa7KzgTzKnhttps://video.igem.org/lazy-static/thumbnails/e9b80149-1ff5-4ad2-8ab5-88730cbd22d0.jpgPatras-Med: Creating a novel therapeutic tool for pancreatic cancer (2023) - Project Promotion [E...**Title:** Creating a novel therapeutic tool for pancreatic cancer **Description:** Take a look at the key factors which led us to focus our research on creating an innovative therapeutic tool for pancreatic cancer, combining the technology of CAR-NK cells and induced pluripotent stem cells (iPSCs). The unimproved data, regarding patients’ health and failing therapies for most cases thus far, highlight the urgency for developing a novel treatment for this extremely deadly type of cancer. Follow our journey, through Project “Herophilus”, to find out more! [Wiki](https://2022.igem.wiki/patras-med)https://static.igem.org/peertube/streaming-playlists/hls/f8431696-1c1b-434f-8d89-00e15f5a23bf/817d410d-2919-4cce-829f-9a37ea4cd7b0-master.m3u8https://video.igem.org/videos/embed/wE5jQaEye1GGqa7KzgTzKn1190652023-09-13T21:07:25.256ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6KpGMK6FEwdckCtHu13g1khttps://video.igem.org/lazy-static/thumbnails/8e8f1a2c-adcd-4094-8aa3-40ef8e0a2789.jpgTec-Chihuahua: AureoBos: Recombinant Enzibiotics as The Future of Non-Antibiotic... (2023) - Proj...**Title:** AureoBos: Recombinant Enzibiotics as The Future of Non-Antibiotic Bovine Mastitis Treatment **Description:** Bovine mastitis, an inflammatory udder infection caused by gram-positive and gram-negative bacteria, annually affects 5.4 million dairy cattle, impacting milk production, causing wastage and rising prices. Conventional antibiotic treatment exacerbates the issue by fostering bacterial resistance. We pioneer non-antibiotic bovine mastitis treatment, addressing global needs while minimizing risks. Aureobos, is an intramammary infusion of endolysins, antimicrobial enzymes known for their specificity, effectiveness against antibiotic-resistant strains, and limited development of resistance. To overcome challenges such as gram-negative bacteria s structure, short endolysin lifespan, and limited range, we synthesized three recombinant-endolysins: LysCSA13, LysK, and LysSS. They feature natural catalytic (CHAP) and cell wall binding (SH3) domains, a 30 hour-lifespan extension via an albumin binding domain, and enhanced targeting and lysis capabilities against Streptococcus agalactiae, Streptococcus uberis (SH3B30 domain), Staphylococcus aureus, and Escherichia coli (polycationic peptides PCNP and CecA). Finally, we included a TEV cleavage site for 6x HisTag removal after protein purification. [Wiki](https://2022.igem.wiki/tec-chihuahua)https://static.igem.org/peertube/streaming-playlists/hls/2e8d4876-8784-4d8b-bfa7-3598aa3330bf/533b5c33-5060-42cd-8304-0a3907b6dd3f-master.m3u8https://video.igem.org/videos/embed/6KpGMK6FEwdckCtHu13g1k11901202023-09-13T21:12:34.501ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ejhmCh1K6QJj1kibpVC2VBhttps://video.igem.org/lazy-static/thumbnails/d6e7caa6-46a2-4e01-b560-a12a94ca1f9a.jpgPatras-Med: Creating a novel therapeutic tool for pancreatic cancer (2023) - Project Promotion [G...**Title:** Creating a novel therapeutic tool for pancreatic cancer **Description:** Take a look at the key factors which led us to focus our research on creating an innovative therapeutic tool for pancreatic cancer, combining the technology of CAR-NK cells and induced pluripotent stem cells (iPSCs). The unimproved data, regarding patients’ health and failing therapies for most cases thus far, highlight the urgency for developing a novel treatment for this extremely deadly type of cancer. Follow our journey, through Project “Herophilus”, to find out more! [Wiki](https://2022.igem.wiki/patras-med)https://static.igem.org/peertube/streaming-playlists/hls/6bd4451b-0294-432d-87fe-39dc3c91a899/a5b43edb-4363-492b-9802-aa7325b7df59-master.m3u8https://video.igem.org/videos/embed/ejhmCh1K6QJj1kibpVC2VB119022023-09-13T21:16:53.423ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2TozgSn9QS7ajKQHTZ8ttGhttps://video.igem.org/lazy-static/thumbnails/68b4adcc-7c51-4fa9-a2ca-726eca90da99.jpgStockholm: LuciPEP: lighting the way to a plastic-free future (2023) - Project Promotion [English]**Title:** LuciPEP: lighting the way to a plastic-free future **Description:** An estimated 2.3 million tonnes of microplastics is said to have accumulated in our oceans. Rather than degrading into harmless molecules, microplastics take hundreds of years to decompose. In the meantime, they wreak havoc on marine eco systems by acting as vector carriers for heavy metals, pollutants, and pathogens. Although we are now aware of the dangers of microplastics, their detection has remained a challenge. LuciPEP is our user-friendly, quantifiable microplastic biosensor, lighting the way to a cleaner, plastic-free future. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/0f45fb82-3f9d-4939-9aa5-cde8d9eb82da/874ee6f6-618e-495e-974a-08dd5da10198-master.m3u8https://video.igem.org/videos/embed/2TozgSn9QS7ajKQHTZ8ttG1210932023-09-13T21:53:01.843ZYES2023 Project PromotionsNOhttps://video.igem.org/w/s1DoVjpXsg5sqzX2YW8aUkhttps://video.igem.org/lazy-static/thumbnails/ef15b5e7-c706-4b69-bc12-989ab03d3d8a.jpgCAU-China: Have you ever thought about building blocks with E. coli? (2023) - Project Promotion [...**Title:** Have you ever thought about building blocks with E. coli? **Description:** This is a true adventure in the field of biomanufacturing. We are a group of crazy architects building with E. coli. We are a team comprised of busy researchers and a passionate, imaginative collective. In 2023, we will showcase to the world a completely new material born from our enthusiasm and creativity. [Wiki](https://2022.igem.wiki/cau-china)https://static.igem.org/peertube/streaming-playlists/hls/d2a4a697-460e-4756-90cb-7d3717234657/90d7eb9e-896b-4263-85b3-b3ff4f748bd0-master.m3u8https://video.igem.org/videos/embed/s1DoVjpXsg5sqzX2YW8aUk1200362023-09-13T22:07:51.394ZYES2023 Project PromotionsNOhttps://video.igem.org/w/cccKpEsUbm96atJaHr3Fnbhttps://video.igem.org/lazy-static/thumbnails/5ca288ea-836d-4e03-9727-7d6fe401d73a.jpgNantes: Spicy'nthesis - Together, let's spice up the fight against diabetes ! (2023) - Project Pr...**Title:** Spicy'nthesis - Together, let's spice up the fight against diabetes ! **Description:** What if we could prevent the appearance of diabetes, a disease which can't be cured nowadays once it begins? What if we could do it with an everyday food? Discover how synthetic biology offers us the tools and opportunities to tackle such a huge health issue. [Wiki](https://2022.igem.wiki/nantes)https://static.igem.org/peertube/streaming-playlists/hls/5aa4f26b-1df8-4144-9acc-66e7a0620108/cf9bd0bb-3457-4eea-a5d5-fcfe53be47d4-master.m3u8https://video.igem.org/videos/embed/cccKpEsUbm96atJaHr3Fnb1190232023-09-13T22:20:30.919ZYES2023 Project PromotionsNOhttps://video.igem.org/w/r117QVGpkUV7Sb2wrMbtRYhttps://video.igem.org/lazy-static/thumbnails/e49ea9e0-6c4b-4318-899d-f3c02ed4c589.jpgUVU-Utah: Bloom-B-Gone (2023) - Project Promotion [English]**Title:** Bloom-B-Gone **Description:** Utah Lake’s algal blooms have increased dramatically. We are the UVU Utah IGEM team. Our goal is to take action against the blooms in Utah Lake by combating the toxic cyanobacteria. We will do this by genetically modifying chlamydomonas and treating wastewater with the modified chlamydomonas before it reaches the Lake. Our hope is to improve the health of the lake and in turn, have a positive impact on Utah. [Wiki](https://2022.igem.wiki/uvu-utah)https://static.igem.org/peertube/streaming-playlists/hls/ca748a09-fec7-4a28-bd8e-2e8462a9201e/fa78baa4-c754-4a74-8950-1a5df414bc8a-master.m3u8https://video.igem.org/videos/embed/r117QVGpkUV7Sb2wrMbtRY1200312023-09-13T22:40:51.729ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nTkFuSGDJjk6FXptJ4PiJYhttps://video.igem.org/lazy-static/thumbnails/6c98452c-6d2f-4d30-8e42-5a3403772f50.jpgBulgaria: CADABRA - Cleaning Agent Developed for AntiBiotic Resistance Annihilation (2023) - Proj...**Title:** CADABRA - Cleaning Agent Developed for AntiBiotic Resistance Annihilation **Description:** Our project CADABRA focuses on addressing the issue of antibiotic removal from hospital wastewater. Our main objective is to enhance the activity of natural metallo-beta-lactamases, specifically VIM and NDM, in order to effectively hydrolyze various types of beta-lactams, including carbapenems such as meropenem. To achieve this, this yearwe will employ directed evolution and targeted mutagenesis techniques based on in silico models. [Wiki](https://2022.igem.wiki/bulgaria)https://static.igem.org/peertube/streaming-playlists/hls/b13af914-e65b-403d-8c1a-34430bc0fd28/86edd8b1-3d05-4de3-99d8-ab28fb8387b1-master.m3u8https://video.igem.org/videos/embed/nTkFuSGDJjk6FXptJ4PiJY1180152023-09-13T22:44:46.994ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8h2DXXEHkovCZecHLLLMF5https://video.igem.org/lazy-static/thumbnails/9214587e-d829-44d6-af5f-a5b03daa6f28.jpgBulgaria: CADABRA - Cleaning Agent Developed for AntiBiotic Resistance Annihil... (2023) - Projec...**Title:** CADABRA - Cleaning Agent Developed for AntiBiotic Resistance Annihilation **Description:** Our project CADABRA focuses on addressing the issue of antibiotic removal from hospital wastewater. Our main objective is to enhance the activity of natural metallo-beta-lactamases, specifically VIM and NDM, in order to effectively hydrolyze various types of beta-lactams, including carbapenems such as meropenem. To achieve this, this yearwe will employ directed evolution and targeted mutagenesis techniques based on in silico models. [Wiki](https://2022.igem.wiki/bulgaria)https://static.igem.org/peertube/streaming-playlists/hls/3aece3fe-84e8-4b39-97eb-91abc20e300e/fd1e2896-b252-4e55-84b9-640ebd494ac6-master.m3u8https://video.igem.org/videos/embed/8h2DXXEHkovCZecHLLLMF5115012023-09-13T22:53:33.228ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hZsFRkhMFA4CVENrA9g1Yyhttps://video.igem.org/lazy-static/thumbnails/0b24dca1-0171-4481-b1f7-696d5c6ab129.jpgUSC: Nipping it in the Bud (2023) - Project Promotion [English]**Title:** Nipping it in the Bud **Description:** Agents on the USC iGEM team are trying to catch the plant murderer: Erwinia amylovora. Causing a contagious disease called fire blight, these powerful bacteria feast on healthy crop plants. Investigate the case with us as we explore the use of phi Ea104 bacteriophage to eliminate bacteria, replace pesticides, and biocontain microbial attacks. [Wiki](https://2022.igem.wiki/usc)https://static.igem.org/peertube/streaming-playlists/hls/89980f58-a586-4dbd-a9a4-1e60e86f0c28/ec5d7817-2f60-4f7d-a497-ea298fdfae63-master.m3u8https://video.igem.org/videos/embed/hZsFRkhMFA4CVENrA9g1Yy108082023-09-13T23:11:37.019ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ab6HiNgDqyKYUrRPzLJBo3https://video.igem.org/lazy-static/thumbnails/130ebab9-ab5a-4705-8813-9a73681402f0.jpgOKstate: CH4NGERS: Transforming Methane into Sustainability (2023) - Project Promotion [English]**Title:** CH4NGERS: Transforming Methane into Sustainability **Description:** In a world grappling with the consequences of climate change, our project emerges as a beacon of hope. As the climate crisis intensifies, methane, a potent greenhouse gas, is thrust into the spotlight. This short video illuminates the urgent need for action by showcasing the impact of methane emissions in agriculture. Enter CH4NGERS, our dedicated team working tirelessly to engineer E. coli, heralding a transformative solution to convert methane into methanol. Join us in this journey from problem to innovation, where we confront climate change head-on, one microbe at a time. Together, we're changing the narrative and forging a path toward a more sustainable future. [Wiki](https://2022.igem.wiki/okstate)https://static.igem.org/peertube/streaming-playlists/hls/4a4b34b5-e286-4818-87a1-968142e8051a/7180bfc6-959f-4c1b-b96c-d681ed2b7570-master.m3u8https://video.igem.org/videos/embed/ab6HiNgDqyKYUrRPzLJBo31200332023-09-13T23:54:59.130ZYES2023 Project PromotionsNOhttps://video.igem.org/w/n2yVakm8ovM5Y1BUoomQNQhttps://video.igem.org/lazy-static/thumbnails/8da8e573-82b2-4ad5-9b86-65b075054625.jpgCSU-CHINA: GnRH Timer: design a cell to secret GnRH in a pulsatile fashion as a ... (2023) - Proj...**Title:** GnRH Timer: design a cell to secret GnRH in a pulsatile fashion as a therapy for patients with the GnRH releasing disorder **Description:** GnRH is a hypothalamic decapeptide produced and secreted by the hypothalamus in a pulsatile fashion. The most significant role of GnRH is to stimulate the pituitary gland to produce LH and FSH on the HPG axis, further stimulating the development of secondary sexual characteristics. What’ more, GnRH plays an important role in aging and inflammation, neurodegenerative diseases and cancer. One of the treatment of GnRH secretory disorder is the pulsatile GnRH stimulation, which injects GnRH into the human body according to a cycle of 1.5-2 hours to ensure that the concentration of GnRH in the body remains periodically changing and simulating physiological processes. However，the most worrying problem is that the frequent injections easily lead to infection. Thus, our team GnRH Timer has been inspired to design a cell, which can work as a ‘pulsatile GnRH stimulation inside human body’. Compared to previous treatments, we are able to make it more convenient and reduce the risk of infection. We simultaneously introduce three plasmids, VP64, KRAB and GnRH, the first two compete for the binding site of the promoter for pulsed expression. GnRH and KRAB share the same gene expression regulatory system to ensure that the expression of them is synchronized. Together with our work in human practices field along with the prediction made in dry lab, we want to solve their real life problem and expand the impact of our project. [Wiki](https://2022.igem.wiki/csu-china)https://static.igem.org/peertube/streaming-playlists/hls/aa47f0f1-85d8-4832-b15d-507f9e1d341c/6e07227d-3b7a-4078-a957-faf3a46607ae-master.m3u8https://video.igem.org/videos/embed/n2yVakm8ovM5Y1BUoomQNQ1200462023-09-13T23:58:48.476ZYES2023 Project PromotionsNOhttps://video.igem.org/w/aDEhqQTPVVZ9T2ZuB8qP6Lhttps://video.igem.org/lazy-static/thumbnails/48a88ef4-2964-47b8-893b-3b15357c4ac1.jpgMarburg: RhizoGene (2023) - Project Promotion [English]**Title:** RhizoGene **Description:** In 2023, we aim to create a toolbox for Agrobacterium rhizogenes. Agrobacterium can naturally transform plants using the virulence (vir) genes in a Ti plasmid. Creating a toolbox, equipped with promoters, terminators, ORIs and RBSs in a modular - MoClo based - toolbox would allow researchers to titrate the expression of vir genes and personalize them for the transformation of a specific species or tissue. The parts will be sourced from already established toolboxes (e.g. Marburg Collection) and from published regulatory sequences for Alphaproteobacteria. [Wiki](https://2022.igem.wiki/marburg)https://static.igem.org/peertube/streaming-playlists/hls/4e245c3d-e025-4907-9765-dc2bea76bb7a/862a7ea5-f053-4f54-822e-13eb151768e2-master.m3u8https://video.igem.org/videos/embed/aDEhqQTPVVZ9T2ZuB8qP6L1170992023-09-14T01:35:03.433ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pHer5Lj6J6zTp2iS9R727Bhttps://video.igem.org/lazy-static/thumbnails/7ec247c8-1eeb-443c-a0a1-5b6f6e54cd36.jpgGuelph: BloomBiota: A Novel Approach to Tackling Vitamin B12 Deficiency (2023) - Project Promotio...**Title:** BloomBiota: A Novel Approach to Tackling Vitamin B12 Deficiency **Description:** BloomBiota is a probiotic that will produce the Gastric Intrinsic Factor (a human protein) required for Vitamin B12 uptake into humans. iGEM Guelph chose to tackle Vitamin B12 deficiency as it is both common and only projected to worsen in the future due to aging of the population and the resultant decrease of the Gastric Intrinsic Factor with age. This is why it is critical to tackle Vitamin B12 deficiency now, with synthetic biology being the perfect tool to tackle this issue. [Wiki](https://2022.igem.wiki/guelph)https://static.igem.org/peertube/streaming-playlists/hls/c003f637-f928-461e-a896-abb9666abea3/cdd17823-16f6-4c14-b362-3805139ba955-master.m3u8https://video.igem.org/videos/embed/pHer5Lj6J6zTp2iS9R727B1180142023-09-14T01:37:05.742ZYES2023 Project PromotionsNOhttps://video.igem.org/w/qRJBTUnx5QFGgfhtMnBLbshttps://video.igem.org/lazy-static/thumbnails/6d673e3b-0ec4-41ef-9617-4a26ca40965f.jpgNCHU-Taichung: Reviving Pollination: The PQQ lighting up Bee's Dilemma. (2023) - Project Promotio...**Title:** Reviving Pollination: The PQQ lighting up Bee's Dilemma. **Description:** There are numerous environmental stresses that pose a threat to the bees. This may result in pollination crisis. In our project, we propose a promising supplement for bees to improve bees' flight endurance and cognitive ability. Consequently, it enhances their resistance to environmental stress. At last, we aim to alleviate the pollination crisis. Create a sustainable environment and a promising future with the effort of NCHU_Taichung iGEM Team. [Wiki](https://2022.igem.wiki/nchu-taichung)https://static.igem.org/peertube/streaming-playlists/hls/c94d0992-2160-488b-9a4c-99b39de43436/fd7c5f86-eae4-4887-b702-83edadfd4e10-master.m3u8https://video.igem.org/videos/embed/qRJBTUnx5QFGgfhtMnBLbs1200192023-09-14T01:39:36.934ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jCvJvWBVFvFfWCfMucyKQUhttps://video.igem.org/lazy-static/thumbnails/a08d3c2e-ad3d-4624-a700-7d9788650ee2.jpgWaterloo: Guarden (2023) - Project Promotion [English]**Title:** Guarden **Description:** Tomato Spotted Wilt Virus (TSWV) threatens global tomato crops, carried by thrips and causing wilted leaves and yield loss. Traditional methods fall short. Waterloo iGEM introduces a breakthrough: Guarden. Our solution employs bacterially-mediated RNA interference (RNAi) to fortify plants against TSWV. By disrupting virus genes, we forge resilient tomatoes, ensuring food security and sustainable agriculture. [Wiki](https://2022.igem.wiki/waterloo)https://static.igem.org/peertube/streaming-playlists/hls/96dd9861-60a2-49bd-b7bf-b406d4ae3e90/8cb76e47-0502-46dc-8704-747c2f24cca4-master.m3u8https://video.igem.org/videos/embed/jCvJvWBVFvFfWCfMucyKQU1180842023-09-14T01:47:02.756ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tGkSfFK58EM7Bn1skf8TU2https://video.igem.org/lazy-static/thumbnails/a9400c07-fdfd-4ccd-9459-a494a454032f.jpgWaterloo: Guarden (2023) - Project Promotion [French]**Title:** Guarden **Description:** Tomato Spotted Wilt Virus (TSWV) threatens global tomato crops, carried by thrips and causing wilted leaves and yield loss. Traditional methods fall short. Waterloo iGEM introduces a breakthrough: Guarden. Our solution employs bacterially-mediated RNA interference (RNAi) to fortify plants against TSWV. By disrupting virus genes, we forge resilient tomatoes, ensuring food security and sustainable agriculture. [Wiki](https://2022.igem.wiki/waterloo)https://static.igem.org/peertube/streaming-playlists/hls/e048bcdc-d955-4d04-ade7-bc24d7a8d84d/2e85ae07-b559-438c-9043-e4023cc8fb6c-master.m3u8https://video.igem.org/videos/embed/tGkSfFK58EM7Bn1skf8TU2118012023-09-14T01:49:02.016ZYES2023 Project PromotionsNOhttps://video.igem.org/w/qu1Q4PFBPLzRRccq6ps6wAhttps://video.igem.org/lazy-static/thumbnails/15e62dea-5cfa-4442-b6a8-c6fce4538259.jpgUNC-ChapelHill: PyoPower (2023) - Project Promotion [English]**Title:** PyoPower **Description:** We are developing a synthetic bacterial-based bioelectrochemical device for wound protecting and healing applications. Namely, we aim to create a self-powered, autonomous, and closed-loop system that detects and treats bacterial infection caused by Pseudomonas aeruginosa. We will also explore a new therapeutic treatment against P. aeruginosa with curcumin, a naturally-occurring compound found in turmeric known to exhibit many antibacterial and anti-inflammatory properties. [Wiki](https://2022.igem.wiki/unc-chapelhill)https://static.igem.org/peertube/streaming-playlists/hls/c644aa03-a410-4b21-8fa5-2dee3eeb63c2/e9bb403b-74ad-4ab6-8740-5f6615467aa9-master.m3u8https://video.igem.org/videos/embed/qu1Q4PFBPLzRRccq6ps6wA1200252023-09-14T02:03:24.525ZYES2023 Project PromotionsNOhttps://video.igem.org/w/1Ath6uwTKfPXCWVajg8zqshttps://video.igem.org/lazy-static/thumbnails/f831b7b2-38c9-4b76-950f-72b2540d74b7.jpgHangzhou-SDG: Enhanced Biopesticide Based on Metarhizium anisopliae (2023) - Project Promotion [E...**Title:** Enhanced Biopesticide Based on Metarhizium anisopliae **Description:** Chemical pesticides are known to destroy biodiversity and harm human beings. Biopesticides are safer for people and the environment, but lack of efficiency. We improved the efficiency of a fungal biopesticide, Metarhizium anisopliae, by introducing an insect-specific neurotoxin LqhIT2. To improve safety and reduce the risk of gene leakage in the real world, we also introduced a phototoxic suicide switch Pmcl1(short)-SuperNova. We hope to save our earth and make the spring no more silent. [Wiki](https://2022.igem.wiki/hangzhou-sdg)https://static.igem.org/peertube/streaming-playlists/hls/04d01939-7b30-43ce-9de6-9955a91d4e36/5a9f00f5-6d35-421b-91f0-f3d76ef02b2c-master.m3u8https://video.igem.org/videos/embed/1Ath6uwTKfPXCWVajg8zqs1190352023-09-14T02:31:40.849ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oE7GgqoWSyof2iv95T3GHjhttps://video.igem.org/lazy-static/thumbnails/3a4ffeb2-b2d4-428d-9cb9-2353917a2baf.jpgFDR-HBPeru: Plast"e.co": Transforming Plastic into Biofuel (2023) - Project Promotion [English]**Title:** Plast"e.co": Transforming Plastic into Biofuel **Description:** Can we mitigate plastic pollution and simultaneously benefit our community? We are bioengineering and developing bioengineered E. coli containing genes for PETase, MHETase, aldA, fucO, and adhE. These genes will enable the conversion of PET plastic into Ethanol. This will reduce plastic pollution and provide a sustainable source of energy for rural communities in Peru as well as a less polluted environment for all living species. [Wiki](https://2022.igem.wiki/fdr-hbperu)https://static.igem.org/peertube/streaming-playlists/hls/b77b7072-c4d2-4a43-8ccd-90160737317c/9b11f2b5-5a15-4842-87d9-476b0bcf11e2-master.m3u8https://video.igem.org/videos/embed/oE7GgqoWSyof2iv95T3GHj1180592023-09-14T02:34:43.728ZYES2023 Project PromotionsNOhttps://video.igem.org/w/7Pt2jdpX44FkhvtMUdd1T1https://video.igem.org/lazy-static/thumbnails/ef194277-5166-4d76-bd9c-a6cbd9f6fe0b.jpgBioplus-China: “Spider Silk Enzymes” eat plastic——The combination of PETase and ... (2023) - Proj...**Title:** “Spider Silk Enzymes” eat plastic——The combination of PETase and spider silk protein enhances microplastic degradation **Description:** Our Project aims to make the process of decomposing PET even faster. We attempt to synthesize a protein complex of PETase and spider silk protein. Due to the characteristics of spider silk protein, the protein complex is expected to have toughness and stickiness, which facilitates the binding of micro-plastic, thus increasing the efficiency of PET decomposition. We‘re going to embed the enzyme in the fragments by gene editing, which can decompose the plastic and protect the environment. [Wiki](https://2022.igem.wiki/bioplus-china)https://static.igem.org/peertube/streaming-playlists/hls/37377144-9db9-4e19-bf31-721d53e0ec6e/70c7a4e7-d6b7-4070-9f4a-747f0c106919-master.m3u8https://video.igem.org/videos/embed/7Pt2jdpX44FkhvtMUdd1T11180262023-09-14T03:13:31.374ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bV57hywqoFgVRHbXLGMsxqhttps://video.igem.org/lazy-static/thumbnails/423eb6a3-1ca9-45b6-b9bd-edbaf6256043.jpgJiangnan-China: The directed modification of P450 enzyme catalyzes the synthesis... (2023) - Proj...**Title:** The directed modification of P450 enzyme catalyzes the synthesis of bile acids efficiently **Description:** An efficient whole-cell P450 biocatalyst was obtained by improving the soluble expressional level of OleP in E. coli C41 (DE3), enhancing the intracellular heme supply, establishing a new biosensor to screen the suitable redox partners for OleP, and optimizing the whole-cell catalytic conditions. Finally, a cost-effective whole-cell catalytic system was constructed, resulting in the highest reported conversion rate of DCA to 6-position hydroxylation product of DCA at 99.1%. [Wiki](https://2022.igem.wiki/jiangnan-china)https://static.igem.org/peertube/streaming-playlists/hls/58645699-c112-4526-a0a7-f1dc798c178e/06690d3d-3a98-441b-abe1-5e3c3066949d-master.m3u8https://video.igem.org/videos/embed/bV57hywqoFgVRHbXLGMsxq1190302023-09-14T03:20:17.078ZYES2023 Project PromotionsNOhttps://video.igem.org/w/b8a53ey6b5KerxrsJMdJRwhttps://video.igem.org/lazy-static/thumbnails/cad950ce-b0b4-4f7c-a35f-6903579fba7b.jpgHUST-UEVE-UPSaclay: "Algal Chip: Safeguarding Fish Products from Harmful Freshwa... (2023) - Proj...**Title:** "Algal Chip: Safeguarding Fish Products from Harmful Freshwater Algae" **Description:** Abstract: Join us in the world of C. elegans inspectors, where cutting-edge technology and genetic modifications meet to protect our aquatic ecosystems and ensure the safety of fish products. Discover how our "Algal Chip," equipped with a keen sense of smell and advanced genetic tools, works tirelessly to detect and assess harmful algae concentrations. Through these innovative efforts, we're revolutionizing the way we monitor and safeguard fish products from the threat of algae blooms. [Wiki](https://2022.igem.wiki/hust-ueve-upsaclay)https://static.igem.org/peertube/streaming-playlists/hls/51fb2eae-5643-4041-9014-da093640e310/fc197e06-c339-4035-83e8-1f07c3a6f4cf-master.m3u8https://video.igem.org/videos/embed/b8a53ey6b5KerxrsJMdJRw1200282023-09-14T03:21:35.765ZYES2023 Project PromotionsNOhttps://video.igem.org/w/d5Bpe1ChTJx5f6S3qFHL3Mhttps://video.igem.org/lazy-static/thumbnails/cce1b9a7-cd1f-4832-a44d-e1d5d4837ebd.jpgLambert-GA: CADlock Phase Two (2023) - Project Promotion [English]**Title:** CADlock Phase Two **Description:** Lambert iGEM developed an affordable, proactive diagnostic tool for coronary artery disease (CAD), which is responsible for a quarter of US deaths. CADlock provides accessible diagnostics by detecting microRNA sequences upregulated in CAD patients. In 2023, we increased CADlock's accuracy while decreasing costs through optimized protocols and developing frugal devices. We furthered our approach towards inclusive care through various educational outreaches and a database for CAD-related miRNAs. [Wiki](https://2022.igem.wiki/lambert-ga)https://static.igem.org/peertube/streaming-playlists/hls/61d2748d-74ed-4ad6-ae38-355f6f2d0a29/9ae42114-d00a-4c83-845d-34602995ee68-master.m3u8https://video.igem.org/videos/embed/d5Bpe1ChTJx5f6S3qFHL3M12001542023-09-14T03:33:14.389ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8hLP5Dc6esrw4QXBkY4Lgchttps://video.igem.org/lazy-static/thumbnails/f52b9a74-ea3d-47c9-ae57-a65552104b61.jpgCU-Boulder: We Grow Milk (2023) - Project Promotion [English]**Title:** We Grow Milk **Description:** The University of Colorado Boulder 2023 IGEM team aims to reduce the environmental impact of the dairy industry by producing milk proteins in Soy Plants. [Wiki](https://2022.igem.wiki/cu-boulder)https://static.igem.org/peertube/streaming-playlists/hls/3b077cb5-9fd9-4f86-8892-8b935e9a24b9/9b53f949-2d07-4d3e-8387-5de5d17e3008-master.m3u8https://video.igem.org/videos/embed/8hLP5Dc6esrw4QXBkY4Lgc1120522023-09-14T03:34:48.649ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tg8uC6gi6pZcKCDg6X6iCVhttps://video.igem.org/lazy-static/thumbnails/d27f4a28-8767-4a5d-b2d8-ab5851ab680c.jpgIITChicago: The Decholesterizer (2023) - Project Promotion [English]**Title:** The Decholesterizer **Description:** Synthetic biology seeks to apply engineering and design principles to living systems, to design them to achieve specific ends. This can be applied to any living system and has broad implications in any sector involving life e.g. the environment, sustainability, or health. Our project seeks to apply synthetic biology to a significant problem of societal relevance. The specific example chosen is hypercholesterolemia, within the human health sector, since this is a very large problem with an imperfect solution. According to the CDC, two in five adults in the United States suffer from high cholesterol. High levels of cholesterol increase one's risk of developing heart disease and stroke, which are the leading causes of death in Americans. The most common treatment for high cholesterol is statins. However, statins not only have a myriad of side effects, but they also work in varying capacities in everyone, which affects outcomes. An approach based on synthetic biology that would regulate the synthesis of cholesterol using a synthetic cholesterol regulatory circuit (SCRC) could provide an alternative. We are developing the SCRC in a two-step circuit that will first detect cholesterol levels and then inhibit cholesterol production. Since the liver is the primary organ that is involved in the synthesis of cholesterol, we have selected to perform our studies in human liver cells. The liver HepG2 cells were modified with a plasmid to detect changes in cholesterol levels and in parallel, with a siRNA to inhibit cholesterol biosynthesis. Cholesterol biosynthesis is regulated by the sterol regulatory element binding proteins (SREBP) system which contains sterol regulatory elements (SRE). These SRE elements were transferred into a cytomegalovirus (CMV) promoter creating an engineered pSRE promoter that acts as a cholesterol biosensor. Verification of the pSRE promoter function was done using a dual luciferase assay. The inhibi...https://static.igem.org/peertube/streaming-playlists/hls/dcc384b5-8ceb-4617-bad0-7c1f04e84d59/5b583355-58df-469a-a80b-3fef7424a33d-master.m3u8https://video.igem.org/videos/embed/tg8uC6gi6pZcKCDg6X6iCV1180412023-09-14T03:40:34.862ZYES2023 Project PromotionsNOhttps://video.igem.org/w/p24TaY6M6wDUVEmZ75mNDzhttps://video.igem.org/lazy-static/thumbnails/bbecb55f-a1d2-4de0-aef4-4f5664d9b4dd.jpgNTU-Singapore: Prime Editing: Gene Editing of Tomorrow (2023) - Project Promotion [English]**Title:** Prime Editing: Gene Editing of Tomorrow **Description:** A revolutionary technique known as prime editing is shaping the forefront of the gene editing field. Our team, PrimeXplore, seeks to improve this technique by optimizing the reverse transcriptase component to increase editing efficiencies. Additionally, we are investigating the potential of prime editing in other industrially-relevant chassis such as bacteria, yeast, and stem cells. With these improvements, we believe that prime editing will shape the future beyond therapeutics and agriculture. [Wiki](https://2022.igem.wiki/ntu-singapore)https://static.igem.org/peertube/streaming-playlists/hls/ba685353-0721-40bf-ac86-88c2a9aabc5b/ebbf8662-c5db-4a51-8cac-ab1487dff01c-master.m3u8https://video.igem.org/videos/embed/p24TaY6M6wDUVEmZ75mNDz11901732023-09-14T03:43:50.907ZYES2023 Project PromotionsNOhttps://video.igem.org/w/cWuMK6iWpNV5cGCpxk6Wfbhttps://video.igem.org/lazy-static/thumbnails/e5d3cde3-241d-4bb3-9edd-8c735d55cfbf.jpgRainsACA-China: Let love close, let "AIDS" away (2023) - Project Promotion [English]**Title:** Let love close, let "AIDS" away **Description:** We are Healing Assistor team, HIV is a retrovirus that causes defects in the human immune system, our team is investigating HIV viral nucleic acid integrase inhibitors in this research initiative through the interaction of HIV -1 RRE and Rev protein bioproducts with T7 RNA polymerase, which provides an effective molecular mechanism for drug targeting. [Wiki](https://2022.igem.wiki/rainsaca-china)https://static.igem.org/peertube/streaming-playlists/hls/60b06e34-89c2-4fd4-960b-5e982774e9e6/cc091929-00b5-47ac-9b4c-8a71f5dbd023-master.m3u8https://video.igem.org/videos/embed/cWuMK6iWpNV5cGCpxk6Wfb1180182023-09-14T03:51:04.266ZYES2023 Project PromotionsNOhttps://video.igem.org/w/iNQW5dfgGxs9bdvWByQvhNhttps://video.igem.org/lazy-static/thumbnails/4e65f736-e0c0-4ffd-8d31-28ab45b880f7.jpgGeorgiaState-SWJTU: Harnessing PHB Production in C. reinhardtii and E. coli: A S... (2023) - Proj...**Title:** Harnessing PHB Production in C. reinhardtii and E. coli: A Sustainable Approach to Plastic Pollution Mitigation **Description:** This video explores a groundbreaking approach to combat plastic pollution and reduce industrial waste's impact on climate change by leveraging polyhydroxybutyrate (PHB) production in algae and E. coli. We delve into the transformation of Chlamydomonas Reinhardtii with PHB-producing genes, leading to increased PHB yields through homologous recombination. In E. coli, we target the acetyl-CoA pathway to enhance PHB accumulation while incorporating co-culture methods for further optimization. Ensuring safety, we implement a lab-controlled kill switch for E. coli and cultivate modified algae in acetate-rich environments. Join us on this journey towards a greener and more sustainable future. [Wiki](https://2022.igem.wiki/georgiastate-swjtu)https://static.igem.org/peertube/streaming-playlists/hls/9035b9ea-62c3-46c6-987b-4c39c8c1f142/cd88d706-a456-42b4-8cc4-5f3587dfec73-master.m3u8https://video.igem.org/videos/embed/iNQW5dfgGxs9bdvWByQvhN1200202023-09-14T03:52:06.436ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8Vnh5T4vKZwsoefCjSBQ3shttps://video.igem.org/lazy-static/thumbnails/0ed6efbb-136f-4bf9-b2a2-804b42357363.jpgNanjing-BioX: 'Carbon Fast': Synthetic non-oxidative glycolytic pathway for comp... (2023) - Proj...**Title:** 'Carbon Fast': Synthetic non-oxidative glycolytic pathway for complete carbon conversion **Description:** Global warming, rising sea levels, and continued environmental degradation are all linked to carbon emissions. In China, microbial carbon emissions account for 7% of the total, and most of the carbon emissions generated by microorganisms come from sugar degradation. Carbon sequestration is conducive to reducing carbon emissions. This project attempts to introduce a highly active phosphoketolase (F/Xpk) gene into the heterotrophic C. tyrobutyricum, to construct an artificial NOG pathway with high metabolic flux. Compared with the native EMP pathway, this alternative pathway metabolizes glucose into acetyl CoA without carbon loss and carbon emissions. Besides, we found that this engineered strain has a higher ability to utilize cheaper carbon sources. The approach used in this project can be further adapted to a variety of strains with similar metabolic carbon emission issues, thereby contributing to the reduction of global carbon emissions. [Wiki](https://2022.igem.wiki/nanjing-biox)https://static.igem.org/peertube/streaming-playlists/hls/402380c7-3822-44e7-990c-36f1560b2226/79f79e5e-4463-4776-90d2-db3c0cef481a-master.m3u8https://video.igem.org/videos/embed/8Vnh5T4vKZwsoefCjSBQ3s1140202023-09-14T04:04:18.628ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6ghFnr2Lyjh8uW99NUTgfjhttps://video.igem.org/lazy-static/thumbnails/3deeb1ff-0e74-4874-a6a5-6555ed4e642c.jpgUManitoba: PLAnet Zero : A Bio-Based Device to Degrade Poly-Lactic Acid (PLA) Pl... (2023) - Proj...**Title:** PLAnet Zero : A Bio-Based Device to Degrade Poly-Lactic Acid (PLA) Plastic **Description:** Poly-lactic acid (PLA) use has recently exploded in Canadian society due to its advertisement as an eco-friendly, compostable, single-use plastic. However, PLA does not effectively degrade under the composting conditions used by Manitoban waste management facilities. UManitoba Prairie iGEM’s “PLAnet Zero” aims to improve the rate of PLA degradation by engineering a bacterium that will surface-display optimized PLA degrading enzymes for application in local composting systems. [Wiki](https://2022.igem.wiki/umanitoba)https://static.igem.org/peertube/streaming-playlists/hls/2aa020e6-6fe6-4a88-9c64-797dce3cd852/fa6d2df9-7d27-4ea6-80e6-20851a9cca03-master.m3u8https://video.igem.org/videos/embed/6ghFnr2Lyjh8uW99NUTgfj1150342023-09-14T04:15:46.564ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kbHSMAKfAUi9MserXqndabhttps://video.igem.org/lazy-static/thumbnails/73eca8b8-ed71-4a51-bfc5-ca0a894c946c.jpgLethbridge: Engineering a Direct Detection Assay for Clubroot Pathogen in Canola... (2023) - Proj...**Title:** Engineering a Direct Detection Assay for Clubroot Pathogen in Canola Soil and Roots **Description:** Clubroot, caused by the pathogenic soil-borne protist Plasmodiophora brassicae, poses a significant threat to Brassicae crops worldwide. Characterized by the development of abnormal growths or galls on the roots of the plants, clubroot poses a serious risk to our local economy by depriving nutrients and inducing plant death in canola, our most profitable crop in Alberta. Currently, farmers outsource detection to off-site laboratories which utilize PCR amplification, a process that is costly and time-consuming. Instead, we are developing a rapid and direct ELISA testing system that utilizes rationally designed, model-based chimeric proteins fused with fluorescent probes (eGFP) that bind to P. brassicae-specific protein targets, Pro1 and PbEL04. We ultimately aim to develop a user-friendly rapid detection system, which can accurately confirm Clubroot within hours, indicating the presence of P. brassicae. Implementing our detection system would provide farmers with a rapid and affordable detection method, enabling quicker execution of clubroot mitigation strategies. [Wiki](https://2022.igem.wiki/lethbridge)https://static.igem.org/peertube/streaming-playlists/hls/9b5ce106-ccaa-42a8-a172-1c1800885cac/16a4d850-dfc0-463f-abde-ea9f246dca5f-master.m3u8https://video.igem.org/videos/embed/kbHSMAKfAUi9MserXqndab1200472023-09-14T04:19:38.229ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6MsYQMQnQynQsAzCbcw3c2https://video.igem.org/lazy-static/thumbnails/94a763df-77a8-47f0-b2e4-0195cd9b5ee7.jpgASU: Beta-FluorinX (2023) - Project Promotion [English]**Title:** Beta-FluorinX **Description:** Currently, we are facing a growing PFAS crisis with these enduring “forever chemicals” polluting our water supplies. Prolonged exposure to PFAS has adverse health consequences, including hormone interference and increased cancer risk. Unfortunately, conventional removal methods are both costly and energy-intensive. Our innovative solution employs E. coli equipped with beta-oxidation and defluorination enzymes to break PFAS down into harmless molecules, offering an efficient, sustainable solution to address the persistent contamination. [Wiki](https://2022.igem.wiki/asu)https://static.igem.org/peertube/streaming-playlists/hls/2ed6ca3c-092f-45dd-af82-b13728eb5ee7/045ac2a7-f63b-45d1-8182-876324c96651-master.m3u8https://video.igem.org/videos/embed/6MsYQMQnQynQsAzCbcw3c21200572023-09-14T04:28:32.295ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8V8aovcTEvHRz9P1z6tW4shttps://video.igem.org/lazy-static/thumbnails/d6be5a80-b5c6-4907-a767-8f54b7179c9b.jpgXJTLU-CHINA: New biosorbent for industrial effluents treatment (2023) - Project Promotion [English]**Title:** New biosorbent for industrial effluents treatment **Description:** XJTLU-CHINA design two types of biosorbents applied in the adsorption of heavy and noble metal ions. They make a biological pathway that is composed of the small ubiquitin-like modifier (SUMO), SmtA, carbohydrate-binding module (CBM), and superfolder GFP (sfGFP) to produce the biosorbent absorbing heavy metal ions. For recycling precious metals, they combine curli fiber and AG4 into a fusion protein. Thus, silver ions are recovered by utilizing the adsorption force of AG4 on silver ions. In the end, these biosorbents are placed in the hardwares for better practical application. [Wiki](https://2022.igem.wiki/xjtlu-china)https://static.igem.org/peertube/streaming-playlists/hls/401acdd8-7575-42fc-9f44-591c12661f08/11b04b58-615d-4e30-bd31-20889035eb35-master.m3u8https://video.igem.org/videos/embed/8V8aovcTEvHRz9P1z6tW4s1200662023-09-14T04:30:33.204ZYES2023 Project PromotionsNOhttps://video.igem.org/w/xfGEaEW8yfJ1VPU5UyJcpchttps://video.igem.org/lazy-static/thumbnails/865476a4-383c-47fb-b41d-d96f0be0aed0.jpgShanghai-MedX: Drug screening system for targeting hippo signalling pathway rela... (2023) - Proj...**Title:** Drug screening system for targeting hippo signalling pathway related tumours **Description:** According to the World Health Organisation, cancer is one of the leading causes of death globally. In 2020, nearly one in six deaths was caused by cancer, which means that there is a need to develop drugs to treat cancer. Our team researched papers about developing cancer drugs. After reading the article, we decided to target the Hippo signalling pathway and load the alphascreen system to form a drug screening system for targeting Hippo signalling pathway-related tumours. using this drug screening system we obtained reliable drugs against the Using this drug screening system, we obtained reliable cancer drug candidates targeting the Hippo pathway, and have experimentally tested that the candidate small molecules have significant effects on gastric cancer cells and colorectal cancer Drosophila model. This demonstrates the reliability of the drug screening system and provides more possibilities for drug candidates to enter the clinical stage. [Wiki](https://2022.igem.wiki/shanghai-medx)https://static.igem.org/peertube/streaming-playlists/hls/fd18c484-d0dd-4037-ab4e-37653a4c62dd/5c48908a-eab2-47a2-b3d0-5ad6e3e7a3f5-master.m3u8https://video.igem.org/videos/embed/xfGEaEW8yfJ1VPU5UyJcpc1200212023-09-14T04:33:46.481ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eYyQYvU29e6JciPmuHTzJzhttps://video.igem.org/lazy-static/thumbnails/e2da4210-5395-4d7d-b8e1-3d8869431c53.jpgNDSU: Varroaway (2023) - Project Promotion [English]**Title:** Varroaway **Description:** Varroaway aims to revolutionize the detection of Varroa Mites in Honey Bee hives through our proprietary biosensor and sampling methodology. [Wiki](https://2022.igem.wiki/ndsu)https://static.igem.org/peertube/streaming-playlists/hls/712cb1dc-9532-4e0f-9bb4-42f97ea61fd1/8356ad2b-536d-4770-9245-6c66ee7684da-master.m3u8https://video.igem.org/videos/embed/eYyQYvU29e6JciPmuHTzJz1190252023-09-14T04:41:12.837ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2ACsXS4f4S1ufahiWjCrCehttps://video.igem.org/lazy-static/thumbnails/3779a05d-1b83-4fb7-96cd-f6e1df62ba9e.jpgFSU: E. esperance (2023) - Project Promotion [English]**Title:** E. esperance **Description:** Trimethylaminuria (TMAU) is a rare metabolic disorder that leads to individuals emitting highly unpleasant odors. TMAU is caused by a genetic mutation that impairs the body's ability to break down and process trimethylamine, a compound found in various foods. When TMA is not properly metabolized, it accumulates and is subsequently released through breath, urine, and sweat, resulting in the distinctive malodor associated with this condition. This condition lacks a known cure and poses significant challenges for those affected. Our aim is to propose a potential treatment for TMAU in the form of a specialized probiotic designed to promote the oxidation of trimethylamine (TMA) within the small intestine. [Wiki](https://2022.igem.wiki/fsu)https://static.igem.org/peertube/streaming-playlists/hls/0ceee62c-db76-4bcb-8fe4-c88b2f1a7079/ddaa9653-1b6b-433a-84ba-e450d9f6a84f-master.m3u8https://video.igem.org/videos/embed/2ACsXS4f4S1ufahiWjCrCe11903572023-09-14T04:41:39.303ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6S8iktypvkSUaP9Tp3z2ubhttps://video.igem.org/lazy-static/thumbnails/76c39887-6835-4e87-a78a-c570098cfe1d.jpgUChicago: GLOW: Green levothyroxine optimised with transaminases (2023) - Project Promotion [Engl...**Title:** GLOW: Green levothyroxine optimised with transaminases **Description:** We intend to improve the synthesis pathway of the heavily prescribed drug Levothyroxine. Current methods require a racemate step to produce a vital chiral amine leading to half of the product being unusable waste. This step also involves harmful chemicals that can damage the environment. We use transaminases to only make the necessary chiral amine to replace the racemate step, allowing higher yields and reduced chemical hazards in the synthesis. [Wiki](https://2022.igem.wiki/uchicago)https://static.igem.org/peertube/streaming-playlists/hls/2f7d6141-48ae-415d-9c78-de644a1579ee/d1a234d8-2a47-4be0-b2b2-59a8b0ebb3be-master.m3u8https://video.igem.org/videos/embed/6S8iktypvkSUaP9Tp3z2ub1200832023-09-14T04:42:14.486ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kyMmcYf68kh9s3kB6vjzsKhttps://video.igem.org/lazy-static/thumbnails/e24f1637-ade7-4316-8370-9ab051492909.jpgMichigan: SNP-it: Point-of-Care Fluorescent SNP Detection (2023) - Project Promotion [English]**Title:** SNP-it: Point-of-Care Fluorescent SNP Detection **Description:** Our team is developing an inexpensive, generalizable genetic variant detection platform for use in point-of-care, low resource settings. A combination of loop mediated isothermal amplification and fluorescent probes will allow us to detect an SNP in the PAR4 protein that contributes to increased risk for thromboembolism and resistance to standard of care drug combination treatment. We envision this test empowering healthcare providers to make more patient-specific prescription decisions. [Wiki](https://2022.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/9e7161d2-5216-4430-ba61-12a1bdc9edb3/c2c591ac-15fa-4404-b3df-b1433aa58a60-master.m3u8https://video.igem.org/videos/embed/kyMmcYf68kh9s3kB6vjzsK1200892023-09-14T04:42:46.450ZYES2023 Project PromotionsNOhttps://video.igem.org/w/mcum6azg3eYqi1n8GjqtpAhttps://video.igem.org/lazy-static/thumbnails/6e038477-c40f-4484-89ce-46f5a70730c9.jpgUCSC: Toxic Algal Bloom Interference (2023) - Project Promotion [English]**Title:** Toxic Algal Bloom Interference **Description:** TABI, the UCSC 2023 iGEM team, tackles toxic algal blooms caused by a cyanobacteria, Microcystis Aeruginosa, a non-model organism that synthesizes a hepatotoxin called microcystin. Aiming to engineer M.aeruginosa to prevent microcystin production, TABI’s software, Chameleon, that will tailor plasmids to the host cell’s restriction modification system and increase transformation efficiency in any non-model species. Chameleon will help reduce the labor of engineering non-model species. [Wiki](https://2022.igem.wiki/ucsc)https://static.igem.org/peertube/streaming-playlists/hls/a3916c7a-0164-49de-93aa-96679290fa44/449e6beb-fa68-41f5-bb08-cb9a852778ba-master.m3u8https://video.igem.org/videos/embed/mcum6azg3eYqi1n8GjqtpA1190412023-09-14T04:46:58.942ZYES2023 Project PromotionsNOhttps://video.igem.org/w/me8PEUq6qn2nCxSMWbXCJYhttps://video.igem.org/lazy-static/thumbnails/a15c1868-3e2a-4a93-a3aa-8d998c84ab41.jpgMichigan: SNP-it: Point-of-Care Fluorescent SNP Detection (2023) - Project Promotion [Italian]**Title:** SNP-it: Point-of-Care Fluorescent SNP Detection **Description:** Our team is developing an inexpensive, generalizable genetic variant detection platform for use in point-of-care, low resource settings. A combination of loop mediated isothermal amplification and fluorescent probes will allow us to detect an SNP in the PAR4 protein that contributes to increased risk for thromboembolism and resistance to standard of care drug combination treatment. We envision this test empowering healthcare providers to make more patient-specific prescription decisions. [Wiki](https://2022.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/a3cc433b-e76d-40ec-b4fa-a77139148d04/659fa76a-5e52-40a7-8dfc-12940ca1985d-master.m3u8https://video.igem.org/videos/embed/me8PEUq6qn2nCxSMWbXCJY120022023-09-14T04:48:39.370ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hqQxhCxcBxTuwKi6xR7w5ehttps://video.igem.org/lazy-static/thumbnails/48db866d-d4d7-41c2-a408-98dc052e50cd.jpgVirginia: NiSkin, for nicer skin (2023) - Project Promotion [English]**Title:** NiSkin, for nicer skin **Description:** Cellulitis is a common skin infection with disastrous complications. Current treatments use methods that cause patients discomfort and promote bacterial resistance. See how the University of Virginia’s iGEM team harnesses the power of teamwork and synthetic biology to develop NiSkin, a new treatment with better effectiveness and fewer side effects. NiSkin travels directly to the site of infection and puts a stop to the infection at its source. [Wiki](https://2022.igem.wiki/virginia)https://static.igem.org/peertube/streaming-playlists/hls/8509fb86-b328-4cc2-ac09-217c4c62674d/f35c766e-316a-462d-b11e-943e293deb9e-master.m3u8https://video.igem.org/videos/embed/hqQxhCxcBxTuwKi6xR7w5e1190662023-09-14T04:55:31.387ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2fXzoteosWFQZGkf98Kas3https://video.igem.org/lazy-static/thumbnails/485d699e-ca5d-452d-941e-05fd1c8e6a71.jpgTsinghua: TabcT: Thermal Activated Bacteria Cancer Therapy (2023) - Project Promotion [English]**Title:** TabcT: Thermal Activated Bacteria Cancer Therapy **Description:** TabcT (Thermal Activated Bacteria Cancer Therapy) is a temperature-controlled bacterial therapy developed by Tsinghua 2023, targeting breast cancer, and it offers the advantages of being cheap, convenient, controlled, continuous, and comprehensive. ECN, a probiotic is genetically modified and injected directly into the tumor. These bacteria cannot survive in aerobic healthy human tissue but colonize within the anaerobic tumor tissue. To precisely target and work, an AND gate is used. Only under anaerobic environment and with ultrasonic heat treatment, will the AND gate be activated and PD-L1 nanobodies be produced and released. PD-L1 will kill ultimately eliminate tumor cells. Additionally, ECN is modified to create arginine-rich environment nearby, enhancing the performance of PD-L1. Hopefully, the mobilization of the bacteria will further prevent metastasis. Meanwhile, through dry experiments and hardware design, we have made the project more perfect. We have also increased public awareness of breast health through human practice and education. We hope that our efforts can contribute to the solution of breast cancer. [Wiki](https://2022.igem.wiki/tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/0a2fcd18-0a66-43cf-baff-923b76cc7252/58f73ff7-9eb1-41bd-9b54-5e6ae056a775-master.m3u8https://video.igem.org/videos/embed/2fXzoteosWFQZGkf98Kas311901322023-09-14T05:02:36.494ZYES2023 Project PromotionsNOhttps://video.igem.org/w/uxUm5eSU5bKbkhMtWAmrfmhttps://video.igem.org/lazy-static/thumbnails/04d664a6-0648-434d-a7b2-954c44fa9efd.jpgHS-Shanghai: Go out and play! Watch out for amoeba parasites! (2023) - Project Promotion [English]**Title:** Go out and play! Watch out for amoeba parasites! **Description:** Tired of uncertain water quality ruining your outdoor adventures? Meet our solution! Our innovative water safety test paper ensures worry-free excursions. Our experiment focuses on versatile test papers usable in any water safety situation. Compact and portable, they're a must-have for various scenarios. Picture this: a wild swim, but unsure if it's safe. That's where our test paper shines. A quick test reveals if it's swim-worthy, significantly reducing amoeba infection risks. Here's how it works: We select efficient crRNA and target sequences, mastering minimal genetic material detection. Coupled with RPA tech, we amplify targets, detecting even trace genetic material. We validate our system with environmental DNA samples, guaranteeing true positives and minimal false alarms. Outdoor equipment tests ensure real-world readiness. Our goal: a convenient, reliable water safety tool. Ideal for trips, water activities, or everyday use, it slashes amoeba risks. Join our journey to redefine outdoor water safety. With precision and cutting-edge tech, we're transforming the way you approach water adventures. Stay tuned for more!" [Wiki](https://2022.igem.wiki/hs-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/e73432e2-c0d9-469d-9d62-1bf064088204/04f7e8eb-4fbd-44da-8a87-5c84a069eefd-master.m3u8https://video.igem.org/videos/embed/uxUm5eSU5bKbkhMtWAmrfm1180252023-09-14T05:05:11.344ZYES2023 Project PromotionsNOhttps://video.igem.org/w/a1PkskJoQkgGNkP54Eqborhttps://video.igem.org/lazy-static/thumbnails/8c4c1d2b-a080-487b-860a-55e6655f398b.jpgJCVI-UCSD: MACS: the Minimal, Adapted Carbon Sequestration cell (2023) - Project Promotion [English]**Title:** MACS: the Minimal, Adapted Carbon Sequestration cell **Description:** The iGEM JCVI-UCSD team has implemented the POAP carbon fixation pathway into JCVI's Minimal Cell (Syn 3.0) in order to develop an organism capable of efficient carbon sequestration. The Minimal Cell is the world's first fully synthetic organism and its simple genome allows us novel insight into how the POAP pathway may affect biological function. Our aim is to contribute to decarbonization efforts to combat climate change. [Wiki](https://2022.igem.wiki/jcvi-ucsd)https://static.igem.org/peertube/streaming-playlists/hls/48ff6b5f-8b41-4ecf-be62-438a4201bafd/22351612-80d5-44a1-9bbb-af4caa926b8b-master.m3u8https://video.igem.org/videos/embed/a1PkskJoQkgGNkP54Eqbor1210722023-09-14T05:33:23.174ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fxRBzwW6obz4ahujSBjb7Ehttps://video.igem.org/lazy-static/thumbnails/b1e3825d-8bf9-4ce5-a182-3e00f0e20986.jpgRDFZ-CHINA: Acnedote: Innovative acne treatment via EGF growth factor and LCFA a... (2023) - Proj...**Title:** Acnedote: Innovative acne treatment via EGF growth factor and LCFA absorption **Description:** In recent years, concerns about facial appearance have been escalating, particularly among adolescents. During this period, acne has emerged as a leading cause of appearance-related anxiety, affecting approximately 80% of individuals aged 11-30 worldwide to some degree. While there are existing topical treatments available, research suggests that their effectiveness is often less than satisfactory. Therefore, we aim to utilize synthetic biology techniques to enhance the ability of the microorganism E. coli Nissle 1917 for acne treatment. For the inflammatory stage of acne, we have engineered the expression of FadL/FadD metabolic pathway proteins in order to absorb and break down long-chain fatty acids (LCFAs) on the face, thereby reducing inflammation. Meanwhile, we have incorporated precise amounts of silver ions to eliminate P. acne, the causative pathogen. For the recovery stage of acne, we introduced plasmids for the exogenous secretion of Epidermal Growth Factor(EGF), enabling E. coli to heal scars that were left behind. This innovative approach efficiently addresses multiple issues associated with acne all at once, and it has been integrated into a two-stage patch named “Acnedote”, which holds great promise. [Wiki](https://2022.igem.wiki/rdfz-china)https://static.igem.org/peertube/streaming-playlists/hls/75d292ce-8c23-4b5a-81d4-b2066b61a2aa/4aced0c0-582d-4653-881b-0068c5bef984-master.m3u8https://video.igem.org/videos/embed/fxRBzwW6obz4ahujSBjb7E12001052023-09-14T05:35:23.637ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oZpfU9WLyb1FQcJoFjnbQEhttps://video.igem.org/lazy-static/thumbnails/80e74ddc-99ed-4ea1-9d6c-fe57f5eec10e.jpgUSTC: TAGO--Diet Sugar Tagatose Production with Heat-resistant Yeast (2023) - Project Promotion [...**Title:** TAGO--Diet Sugar Tagatose Production with Heat-resistant Yeast **Description:** Overconsumption of sugar is partly blamed for the growing rate of many diseases. Tagatose, a rare hexose, is almost as sweet as surcose while its caloric content is lower. In our project, we engineerd two different metabolic pathways, one using isomerase and the other using reductase and dehydrogenase, to product tagatose with lactose in Kluyveromyces marxianus, a heat-resistant yeast. Through this method, we anticipate low-cost and efficient production of tagatose. [Wiki](https://2022.igem.wiki/ustc)https://static.igem.org/peertube/streaming-playlists/hls/ba2cc729-3ee7-4b65-8ea9-36db331a13b6/f8c128fc-c041-4ed4-ab7a-21da8de1be99-master.m3u8https://video.igem.org/videos/embed/oZpfU9WLyb1FQcJoFjnbQE1180342023-09-14T05:36:52.721ZYES2023 Project PromotionsNOhttps://video.igem.org/w/guxoBuVDeQwAGaqbra5XFthttps://video.igem.org/lazy-static/thumbnails/aac252ac-7522-40c2-8104-e0a1821ea88e.jpgNJU-China: Pymaker: AI modified yeast promoter (2023) - Project Promotion [English]**Title:** Pymaker: AI modified yeast promoter **Description:** Data is the biggest obstacle in the application of artificial intelligence. For biotechnology, acquiring data means a significant investment of manpower, time, and financial resources. In reality, often only tens of thousands of data points are accessible, while high-performance AI requires data on a scale of at least a million. To cross over the gap of data requirement, we innovatively employed the paradigm of transfer learning, and aimed at the key component of synthetic biology—promoters. Our AI model shows high ability in learning the inherent features of promoter sequences based on limited experimental data. Meanwhile, our AI model can successfully generate promoter sequences with specific expression rates, making highly efficient optimization to yeast promoters. Furthermore, our AI model proves that our paradigm of transfer learning has strong scalability, and can be successfully expended to almost every aspect of synthetic biology, present a realistic answer for using AI in biology. [Wiki](https://2022.igem.wiki/nju-china)https://static.igem.org/peertube/streaming-playlists/hls/7d754009-d73c-4de0-a1bf-ab144d29a1fd/465180b4-b1f0-4a38-bd22-d2828f72600e-master.m3u8https://video.igem.org/videos/embed/guxoBuVDeQwAGaqbra5XFt1200502023-09-14T06:09:47.365ZYES2023 Project PromotionsNOhttps://video.igem.org/w/t93RZvfkN62MNQNbakZKxmhttps://video.igem.org/lazy-static/thumbnails/9b5d3e32-c352-4d26-a51a-eddc6913532b.jpgDNHS-SanDiego-CA: Monitoring PET Hydrolysis (2023) - Project Promotion [English]**Title:** Monitoring PET Hydrolysis **Description:** The main goal of our project is to design a biosensor to monitor PET hydrolysis through terephthalic acid (TPA) detection that can be used by researchers to accurately quantify plastic degradation. We noticed that there weren't any accurate, reliable sensors for scientists to use which is why we decided to focus our project mainly on the detection of PET degradation. [Wiki](https://2022.igem.wiki/dnhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/dbc6752b-edee-4426-9317-5f6a7cafb35e/7f0566b2-b819-4d7d-a7bc-c44a887620d3-master.m3u8https://video.igem.org/videos/embed/t93RZvfkN62MNQNbakZKxm1200792023-09-14T06:10:20.594ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ef9j2CbCQtB7uqMWtw9kCxhttps://video.igem.org/lazy-static/thumbnails/33a66321-41bd-4962-92c9-d979ed8de935.jpgGU-Frankfurt: B.L.I.S.S. - Beta-Lactam Intelligent Sensing System (2023) - Project Promotion [Eng...**Title:** B.L.I.S.S. - Beta-Lactam Intelligent Sensing System **Description:** Antibiotic resistance was classified by the WHO as a leading threat for global health, food security and development. The overuse of antibiotics plays a critical role in the development and spread of resistances, as current monitoring methods lack simplicity, affordability and accuracy. Our goal is to provide a simple biosensor, based on beta-lactam sensor proteins, that can effectively detect antibiotic contaminations. [Wiki](https://2022.igem.wiki/gu-frankfurt)https://static.igem.org/peertube/streaming-playlists/hls/6b40564b-7c23-4cb5-95ec-9d1c9e0b3cf3/43385cff-4306-45ca-9efb-91e55f38874a-master.m3u8https://video.igem.org/videos/embed/ef9j2CbCQtB7uqMWtw9kCx12001012023-09-14T06:18:23.357ZYES2023 Project PromotionsNOhttps://video.igem.org/w/s64o3fSiKZn627VRkL4Vxehttps://video.igem.org/lazy-static/thumbnails/2f381d5f-5c73-43c1-b6a3-2f138f6b1b3d.jpgZJU-China: Flora Sentinel (2023) - Project Promotion [English]**Title:** Flora Sentinel **Description:** This year, on the beautiful campus of Zhejiang University, a passionate group of young individuals is working tirelessly to create a new and promising biopesticide. And within this innovative laboratory, Flora Sentinel was born. It is a novel biopesticide based on saRNA, providing a new inspiration for future research on clean and effective biopesticides. We envision a future where more Flora Sentinels will protect fields under human guidance, ensuring flourishing crops and abundant harvests for the world. [Wiki](https://2022.igem.wiki/zju-china)https://static.igem.org/peertube/streaming-playlists/hls/d3426830-f5ae-4a40-ad83-32360a79725f/32fc6822-0b6e-429a-9639-cc75b31cecdd-master.m3u8https://video.igem.org/videos/embed/s64o3fSiKZn627VRkL4Vxe12006532023-09-14T06:27:23.995ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4vtwQTJM3zPwka7zHewckmhttps://video.igem.org/lazy-static/thumbnails/265fc76f-fc42-49a1-8a8b-aa6d0808b101.jpgDKU: Bioengineered Phage for Citrus Greening Control (2023) - Project Promotion [English]**Title:** Bioengineered Phage for Citrus Greening Control **Description:** Citrus greening is a worldwide citrus disease. The engineered phaged proposed by our team utilized AMP and dsRNA interference for pathogen and vector elimination, which is hopeful to be a new and strong resolution to citrus greening. [Wiki](https://2022.igem.wiki/dku)https://static.igem.org/peertube/streaming-playlists/hls/1c68f3ce-79e7-4818-9864-788d40d90a4e/a6fb5519-196c-4522-bec1-726515781e55-master.m3u8https://video.igem.org/videos/embed/4vtwQTJM3zPwka7zHewckm1200382023-09-14T06:36:01.893ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jiqKiEKA7aP3mkXZxSMHTRhttps://video.igem.org/lazy-static/thumbnails/8f0c4424-6dae-47ae-9171-4d69af964287.jpgPennState: SensoREX (2023) - Project Promotion [English]**Title:** SensoREX **Description:** A patient and her doctor are introduced to SensoREX: Riboswitch-Enabled eXpression. [Wiki](https://2022.igem.wiki/pennstate)https://static.igem.org/peertube/streaming-playlists/hls/943363ff-e343-43b9-9225-08829414fbcb/fe9ccca7-fef9-49c6-8da7-db6df1a3e077-master.m3u8https://video.igem.org/videos/embed/jiqKiEKA7aP3mkXZxSMHTR1200142023-09-14T06:46:24.373ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4EZTYiuop2WcYtpkUxGzYHhttps://video.igem.org/lazy-static/thumbnails/5caf9c9c-6d99-4b52-9c8f-97b9308c4618.jpgCUG-China: An arsenic-specific and sensitive biosensor with genetically engineer... (2023) - Proj...**Title:** An arsenic-specific and sensitive biosensor with genetically engineered Shewanella oneidensis in a bioelectrochemical system **Description:** Arsenic (As) is a toxic metalloid and is widespread in diverse natural environments, ranging from groundwater, and atmosphere to soil. Hundreds of millions of people in more than 70 countries around the world face the threat of the high arsenic groundwater. Therefore, rapid and specific detection of arsenic is of significance to monitor and assess its presence in the ecosystems wherein. Electrochemically active biofilms (EABs)-enabled biosensors have shown promise in environmental applications. EABs are formed by electroactive bacteria capable of exchanging electrons with electrodes, which can sense analytes of interest by converting metabolic changes to easily detectable electrical signals. In 2023, the CUG-China team aims to develop an EABs-enabled biosensors to sense arsenic by using the electroactive bacterium Shewanella oneidensis MR-1 as chassis cells. The arsenic biosensor constructed in this project are self-sustainable, cost effective and portable devices with a wide range of applications including in-situ water quality monitoring. [Wiki](https://2022.igem.wiki/cug-china)https://static.igem.org/peertube/streaming-playlists/hls/1dbd5be3-ebb4-4af3-8ef3-a5b26faded6d/47948830-165b-480a-83ad-65e0fa0cf93f-master.m3u8https://video.igem.org/videos/embed/4EZTYiuop2WcYtpkUxGzYH1190842023-09-14T06:54:28.696ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2CttGu14gjseZgMwkUfUDohttps://video.igem.org/lazy-static/thumbnails/44e225d0-69cb-454e-af91-24b04da17091.jpgTuebingen: To build a blood type - from B to A (2023) - Project Promotion [English]**Title:** To build a blood type - from B to A **Description:** This project aims to identify and evaluate enzymes capable of converting blood antigen B to A using molecular docking screens, aswell as bioinformatic and cheminformatic methods. This is a proof of concept for a general method aiming to identify enzymes capable of catalyzing the selective modification of any non reducing sugar. The research plan involves screening for promising enzymes, followed by overexpression in escherichia coli for purification. To assess efficency and selectivity of the identified enzymes, in vitro experiments will be conducted, utilizing antigen models, specifically methylated monosaccharides or tetrasaccharides. Upon achieving promising results, a potential future phase of the project involves testing the enzyme candidate on erythrocyte samples. A second part of the project aims to improve the catalytic efficiency of erythrocyte surface antigen targeting enzymes by engineering a domain biobrick capable of localizing any fused domain to the surface of erythrocytes. This will be evalutaed using fluorescence imaging. [Wiki](https://2022.igem.wiki/tuebingen)https://static.igem.org/peertube/streaming-playlists/hls/0d30d918-0389-4a48-8c03-10efd2453518/eafbd5fc-2d79-4e14-88f3-1c23fdb9519b-master.m3u8https://video.igem.org/videos/embed/2CttGu14gjseZgMwkUfUDo1190232023-09-14T06:55:36.674ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pfdfouNMqvr8dhBL2Td1VRhttps://video.igem.org/lazy-static/thumbnails/45b83fae-ab68-4d04-89a2-3e03fa580c46.jpgUSAFA: Lyme-AID: Genetically Engineered Detection of Borrelia burgdorferi, the c... (2023) - Proj...**Title:** Lyme-AID: Genetically Engineered Detection of Borrelia burgdorferi, the causative agent of Lyme Disease **Description:** The USAFA iGEM 2023 team is working to improve rapid, on-the-spot, detection technology for Borrelia burgdorferi from an infected tick bite. This lyme sensing biosensor, bandaid-like patch, will be called Lyme-AID. A three-step approach will be used in this biosensor: Attract, Inhibit, and Detect (AID). Attract(1) B. burgdorferi to the biosensor patch and also limit diffusion of the pathogen into the new host through expression of Salp12, an Ioxodes scapularis salivary gland protein that acts as a chemoattractant for B. burgdorferi. We also want to produce the outer surface proteins and primary antigens for B. burgdorferi in genetically engineered E. coli that can be used to stimulate the host immune system and inhibit(2) the pathogen. Finally, detecting(3) B. burgdorferi through an aptamer-mediated biosensor specifically designed to bind to outer surface protein A or C and cause conformational changes in the aptamer/gold nanoparticle resulting in a visual color change. [Wiki](https://2022.igem.wiki/usafa)https://static.igem.org/peertube/streaming-playlists/hls/bc3e266c-e4f5-463a-8e51-010ca7eb9463/071cf0fb-d0b2-437b-9a45-4d7a3dbba816-master.m3u8https://video.igem.org/videos/embed/pfdfouNMqvr8dhBL2Td1VR1190772023-09-14T07:16:54.387ZYES2023 Project PromotionsNOhttps://video.igem.org/w/9GVeUU2RMDp6kLbPqmKoTChttps://video.igem.org/lazy-static/thumbnails/8a73146e-9bd7-4696-a1dd-012ef387c1a5.jpgLiuan-Shanghai: Vegetables are rotting, and then? (2023) - Project Promotion [English]**Title:** Vegetables are rotting, and then? **Description:** Tough situations, for instance, significant waste of food and lack of safe and healthy method to conserve the vegetables and fruits we bought, has been challenges worldwide. It is a problem that we cannot escape anymore, especially in areas of food scarcity. Liuan_Shanghai iGEM 2023 team aims to develop a novel anti-microbial peptide spray to fulfill the need for a non-toxic, versatile, and environmentally friendly preservation method, contributing our efforts to coping with the issue of food safety and security. [Wiki](https://2022.igem.wiki/liuan-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/467fab99-7e62-4a6c-a211-701618522282/c7a7e487-34e9-43b5-bd53-5984387e6158-master.m3u8https://video.igem.org/videos/embed/9GVeUU2RMDp6kLbPqmKoTC119062023-09-14T07:18:33.371ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2jd71WJxkyJapc4ubsgQAuhttps://video.igem.org/lazy-static/thumbnails/51d2c7c5-e002-4e2b-ae05-12b5a57f0058.jpgTsinghua-TFL: STAR-CHLAMY: A New Solution to Land Crisis (2023) - Project Promotion [English]**Title:** STAR-CHLAMY: A New Solution to Land Crisis **Description:** Global food security and land availability are facing significant challenges. Our team this year chooses Chlamydomonas Reinhardtii to synthesize starch, hoping to offer a promising solution to address these challenges. Chlamy is a single-cell green algae. By modifying its photosynthetic pathway and starch metabolism pathway, our super Chlamy can produce more and valuable starch with higher efficiency and sustainability. A new way of agriculture is coming and we hope we are the ones bringing it. [Wiki](https://2022.igem.wiki/tsinghua-tfl)https://static.igem.org/peertube/streaming-playlists/hls/0aa3fc57-5a27-46a8-867d-503b96d5d648/036c4d29-1af2-4f10-a55a-22b0d0c1f5c8-master.m3u8https://video.igem.org/videos/embed/2jd71WJxkyJapc4ubsgQAu1200562023-09-14T07:28:04.498ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tJEAdj5L6xn96uJbb3GZLohttps://video.igem.org/lazy-static/thumbnails/8181047c-1eb0-4d95-bbff-973fa3293198.jpgSYSU-Software: BioRocket——AI-guided High-Throughput Protein Delivery System Disc... (2023) - Proj...**Title:** BioRocket——AI-guided High-Throughput Protein Delivery System Discovery Approach **Description:** Scientists harness nature's syringe-like nano-machines, extracellular contractile injection systems (eClS), for precise protein delivery. Using Al and data-driven methods, SYSU-Software expands the eClS toolbox, customizing protein delivery for a disease-free future. In this video, we use the picture of dropping chrysanthemum flowers to show life fading, and use the picture of everyone running together to embrace the future. We hope eClS's appearance will be refreshing. In addition, we use the picture of wearing a mask to represent the raging disease, and taking off the mask means a world without disease. [Wiki](https://2022.igem.wiki/sysu-software)https://static.igem.org/peertube/streaming-playlists/hls/e09bc396-2a05-414d-afd5-a530fc4a6d32/90f82a81-e8ec-4d5b-9421-5b143b8f51e5-master.m3u8https://video.igem.org/videos/embed/tJEAdj5L6xn96uJbb3GZLo1200522023-09-14T07:35:14.081ZYES2023 Project PromotionsNOhttps://video.igem.org/w/prpJtM364Y5MmyzoDX9LDwhttps://video.igem.org/lazy-static/thumbnails/215cdc33-55c3-4104-8b57-d036d5d96d09.jpgWestlake-China: Nanoparticle, antibody and cancer: Biosynthesis and application ... (2023) - Proj...**Title:** Nanoparticle, antibody and cancer: Biosynthesis and application of iron oxide nanoparticle. **Description:** Our project stems from some bio-based nanoparticle synthesis and drug delivery that targets HER2 positive breast cancer. In response to this, we step in using genetically modified bacteria to synthesis iron oxide nanoparticles and scFv domain of anti-HER2. We hope to find an effective and reliable conjugation method of two products and provide new ideas for the treatment of cancer, as well as targeted drug delivery therapy. [Wiki](https://2022.igem.wiki/westlake-china)https://static.igem.org/peertube/streaming-playlists/hls/bdce68b6-b301-440d-b47a-6722310d0a80/31048bbc-8540-4208-b675-f42f6c23df53-master.m3u8https://video.igem.org/videos/embed/prpJtM364Y5MmyzoDX9LDw1200552023-09-14T07:39:52.889ZYES2023 Project PromotionsNOhttps://video.igem.org/w/iRNR3BSJUYntYVxn8pK58mhttps://video.igem.org/lazy-static/thumbnails/7992e640-a2dd-41b9-9a05-1b3f42a13eb3.jpgHKU-HongKong: Health News: The Latest Breakthrough in Immunotherapy (2023) - Project Promotion [E...**Title:** Health News: The Latest Breakthrough in Immunotherapy **Description:** Cancer is one of the most prominent health risks on a global scale. In today’s health segment, we have invited experts from the University of Hong Kong to talk about their iGEM project 2023. They are working on delivering transgene into hard-to-transfect tumour-associated macrophages, by knocking out SIRP-alpha and using self-replicating RNA (srRNA) as a vector. [Wiki](https://2022.igem.wiki/hku-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/909fabec-aef5-467f-9c9c-d494a6112082/ff197079-92b6-4141-a3d8-e20b00a2e9e4-master.m3u8https://video.igem.org/videos/embed/iRNR3BSJUYntYVxn8pK58m1190542023-09-14T07:40:22.467ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kNWSurUVCg1zhYF7ttFxNphttps://video.igem.org/lazy-static/thumbnails/0be35dc2-e2f8-4895-a82a-4bf0a755c5f9.jpgRBHS-SanDiego-CA: Toxoplasma Gondii in Cats (2023) - Project Promotion [English]**Title:** Toxoplasma Gondii in Cats **Description:** Toxoplasma gondii is a protozoan parasite that readily infects warm blooded mammals, and is a growing contaminant as a waterborne zoonosis and increasing in prevalence in cats, with approximately 16-40% of cats contracting T. gondii within the US. Additionally, Toxoplasma gondii is currently recognized as a waterborne zoonsis, and there is prevalence in transmission to humans and other mammals due to contact with contaminated cat feces. However, there is no current vaccine or drug able to be set as a definitive standard treatment for T. gondii. In order to address these issues, development of a vaccine to prevent zoonotic transmission of T. gondii into water, soil, and the environment is necessary in the absence of an effective human model of a vaccine to prevent exposure and spread. We deliver a bacterium within the feline’s food which will produce a phage acting as a carrier for the known T. gondii antigen. The phage will be accepted and transitized once in the small intensive traveling into the lymph producing an immune response and antibodies that will prevent oocyst shedding in the cat. This allows faster development, delivery, and accessibility for feral and domestic cats. [Wiki](https://2022.igem.wiki/rbhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/a06ba9c2-63fe-43f1-8439-7f0ebcff3187/a17434e8-fe92-4b1b-9435-c9dfb880e6c7-master.m3u8https://video.igem.org/videos/embed/kNWSurUVCg1zhYF7ttFxNp1160412023-09-14T07:45:33.848ZYES2023 Project PromotionsNOhttps://video.igem.org/w/x3BcVzaUooY4Xp5jKnouC2https://video.igem.org/lazy-static/thumbnails/2e21cace-431a-4c59-8db7-12921b5e448d.jpgUPNAvarra-Spain: ResVinOLife: unlocking the power of resveratrol (2023) - Project Promotion [Engl...**Title:** ResVinOLife: unlocking the power of resveratrol **Description:** Resveratrol is a naturally occurring molecule found in wine and grapes, known for its significant antioxidant effects and protective properties against specific forms of cancer and other diseases. UPNAvarra-Spain is currently engaged in the development of a circular economy project centered on the biosynthesis of resveratrol in Escherichia coli, utilizing precursor compounds available within the residues generated by the wine industry. [Wiki](https://2022.igem.wiki/upnavarra-spain)https://static.igem.org/peertube/streaming-playlists/hls/fb687b72-12af-4843-9e6b-d74ddedc7f39/f910a924-aa26-4def-aed7-cb4874c2ab57-master.m3u8https://video.igem.org/videos/embed/x3BcVzaUooY4Xp5jKnouC21180282023-09-14T07:48:36.125ZYES2023 Project PromotionsNOhttps://video.igem.org/w/h5oXafPeW5ZqiKPxPJc16Shttps://video.igem.org/lazy-static/thumbnails/35aef8f0-5c86-4221-87b0-50a2e86bc124.jpgUPNAvarra-Spain: ResVinOLife: unlocking the power of resveratrol (2023) - Project Promotion [Span...**Title:** ResVinOLife: unlocking the power of resveratrol **Description:** Resveratrol is a naturally occurring molecule found in wine and grapes, known for its significant antioxidant effects and protective properties against specific forms of cancer and other diseases. UPNAvarra-Spain is currently engaged in the development of a circular economy project centered on the biosynthesis of resveratrol in Escherichia coli, utilizing precursor compounds available within the residues generated by the wine industry. [Wiki](https://2022.igem.wiki/upnavarra-spain)https://static.igem.org/peertube/streaming-playlists/hls/822f5674-59cf-4128-a3e5-e354e0ed1a4c/782ef498-8514-4416-b757-9608ff20f140-master.m3u8https://video.igem.org/videos/embed/h5oXafPeW5ZqiKPxPJc16S119052023-09-14T07:50:42.110ZYES2023 Project PromotionsNOhttps://video.igem.org/w/xm3MuPaRKc4L771SAautA6https://video.igem.org/lazy-static/thumbnails/37c80f85-fc7c-4e32-8637-e2a2589bd278.jpgZJUintl-China: CANCER SNIPER -- A New Cancer Therapy (2023) - Project Promotion [English]**Title:** CANCER SNIPER -- A New Cancer Therapy **Description:** Lung cancer is a devastating disease that affects millions of people worldwide. In order to advance the treatment for lung cancer, our iGEM team has developed a method based on machine learning. We built a model and ranks genes according to their feature importance scores, allowing us to select genes of highest scores in lung cancer bectria. Next, we constructed a bioengeered E. coli, which can express antitumor factors in the cancer microenvironment. [Wiki](https://2022.igem.wiki/zjuintl-china)https://static.igem.org/peertube/streaming-playlists/hls/fdd7e3cb-8032-4c57-a3f2-ac5eb29b0e35/7b30f421-4c73-45d9-93ff-9f15be44875e-master.m3u8https://video.igem.org/videos/embed/xm3MuPaRKc4L771SAautA61180172023-09-14T08:01:49.803ZYES2023 Project PromotionsNOhttps://video.igem.org/w/28MioA4mPjiyh5gNoHE1Wzhttps://video.igem.org/lazy-static/thumbnails/851243a5-fc0a-4ded-8d68-01d49612b306.jpgSWUer-China: Functional exploration of new genes in traction silk properties in ... (2023) - Proj...**Title:** Functional exploration of new genes in traction silk properties in garden spiders **Description:** The strength and toughness of spider silk make it a promising material. We have chosen the Nephila clavata for evolutionary analysis, and finally screened two new genes closely related to spider webbing behavior. And introduce the expression protein of the new genes into other biological silk materials to improve their mechanical properties, and explore the possibility of optimizing in vitro spinning conditions to achieve industrial preparation. [Wiki](https://2022.igem.wiki/swuer-china)https://static.igem.org/peertube/streaming-playlists/hls/092f4316-034c-4d77-a614-3a35407eaa9d/ad42aeeb-43b9-42ea-b784-83c54d61b33c-master.m3u8https://video.igem.org/videos/embed/28MioA4mPjiyh5gNoHE1Wz1200102023-09-14T08:04:48.507ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ceRdWChVeLjxYqDfbKg1pmhttps://video.igem.org/lazy-static/thumbnails/88b5fd75-2728-4930-bc09-b5b007fd22cb.jpgUSTC-Software: prot-DAP: protein design auxiliary platform (2023) - Project Promotion [English]**Title:** prot-DAP: protein design auxiliary platform **Description:** As a discipline requires the merge of computer science and biology, synthetic biology becomes quite abstract, and very difficult to understand. We are USTC-software 2023 iGEM team, and our platform, prot-DAP, will be a green hands-friendly platform.it will reduce people's learning cost of synthetic biology and improve scientific research efficiency. [Wiki](https://2022.igem.wiki/ustc-software)https://static.igem.org/peertube/streaming-playlists/hls/5b038773-6587-479a-bda8-26ab0bdb2792/28ae8a51-c7f8-45bc-a6bc-7ac8a1efc4f7-master.m3u8https://video.igem.org/videos/embed/ceRdWChVeLjxYqDfbKg1pm1200192023-09-14T08:05:50.357ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hTxVUjkqjRyTpjcEhd3Na1https://video.igem.org/lazy-static/thumbnails/119ad6a3-b70b-4792-9f5e-6fbe92e74715.jpgiZJU-China: Eco-Art: A solution for pungent odors degradation in oil painting ba... (2023) - Proj...**Title:** Eco-Art: A solution for pungent odors degradation in oil painting based on engineering bacteria. **Description:** Turpentine is the most common thinner to modify the viscosity of oil paints. However, its pungent smell, which is mainly caused by α-pinene, poses a threat to the health of thousands of oil painting practitioners. After researching and interviewing, the final direction was defined. We constructed engineering bacteria that can efficiently degrade α-pinene and its oxide to remove allergens from turpentine and designed our unique bio-air purifier. [Wiki](https://2022.igem.wiki/izju-china)https://static.igem.org/peertube/streaming-playlists/hls/88c4d3f7-0106-46b9-8a54-daad3c648e92/763b6303-161d-41b0-810e-6665607480ec-master.m3u8https://video.igem.org/videos/embed/hTxVUjkqjRyTpjcEhd3Na11160382023-09-14T08:09:16.668ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gvf4SKA1pdoCsmkEmxrqbfhttps://video.igem.org/lazy-static/thumbnails/0eef7446-b770-4f8c-8e8f-e76239530b56.jpgHK-SKHLPSS: Bacterial Engineering for Speeding up PFAS Degradation (2023) - Project Promotion [En...**Title:** Bacterial Engineering for Speeding up PFAS Degradation **Description:** Thanks to the heat, oil and water resistant nature of poly-fluoroalkyl substances (PFAS), several decades are required for complete PFAS degradation. Research found that two enzymes, namely lignin peroxidase (LiP) and manganese peroxidase (MnP) have their abilities to degrade PFAS. Our team, HK-SKHLPSS, want to search for the possibilities of speeding up the degradation process by engineering bacteria to generate a DNA duplex responsible for linking Lip and Mnp. [Wiki](https://2022.igem.wiki/hk-skhlpss)https://static.igem.org/peertube/streaming-playlists/hls/7d8e5176-35d2-4a46-8d6d-a4303e42be0a/a1405c44-c006-45c6-adf7-382f9a2fda58-master.m3u8https://video.igem.org/videos/embed/gvf4SKA1pdoCsmkEmxrqbf1200142023-09-14T08:22:08.117ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gEg2rsa3aL2M3qiGyVwSzNhttps://video.igem.org/lazy-static/thumbnails/8b7429dd-1e9c-425d-b3c7-1203dab3dc07.jpgIFB-Gdansk: EDC-Seas: it's not to (phtha)late! (2023) - Project Promotion [English]**Title:** EDC-Seas: it's not to (phtha)late! **Description:** Phthalates are a group of chemical compounds that are used in industry as plasticisers to improve their flexibility, transparency, and durability. Unfortunately, they are easily released into the environment and, as endocrine active substances, affect the endocrine system of living organisms. Our cellulosome-based system allows us to immobilize enzymes of our choice that degrade phthalates to safe compounds and ultimately design GMO-free water filtration system. [Wiki](https://2022.igem.wiki/ifb-gdansk)https://static.igem.org/peertube/streaming-playlists/hls/7ed09a3f-27cb-4544-a49e-0d8386272630/44b95ae7-9e96-4851-a225-b2e059e76ef6-master.m3u8https://video.igem.org/videos/embed/gEg2rsa3aL2M3qiGyVwSzN1190382023-09-14T08:28:05.220ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ezJhCcHfFVjifgXvbwf8fKhttps://video.igem.org/lazy-static/thumbnails/c16b3b3c-755c-4f41-b858-7050f6b53366.jpgAFCM-Egypt: A therapeutic approach for Rheumatoid Arthritis using Mesenchymal St... (2023) - Proj...**Title:** A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Stem Cells for tissue-specific exosomal mRNA delivery **Description:** Our team is introducing a novel therapeutic platform for Rheumatoid Arthritis, which is an autoimmune disease that targets patients' joints and has various systemic complications. Using the power of Mesenchymal Stem Cells, we’ve created a system to specifically target the auto-reactive cells and destroy them using our exosomal delivery system to deliver a CRISPR-Cas Cargo that initiates apoptosis of these cells, without affecting the body’s immune response against harmful microbes [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/6dfc6834-4589-4ecb-83df-5c58db5ce363/64c0c914-e991-4b0a-b60d-54392eae25da-master.m3u8https://video.igem.org/videos/embed/ezJhCcHfFVjifgXvbwf8fK1200802023-09-14T08:43:42.356ZYES2023 Project PromotionsNOhttps://video.igem.org/w/rkFf82kGM4Vez5v3y5GAkwhttps://video.igem.org/lazy-static/thumbnails/9a1d25e7-8c61-47f9-aeca-39e4ed16fc34.jpgBOKU-Vienna: Horm-Own (2023) - Project Promotion [English]**Title:** Horm-Own **Description:** The BOKU Vienna iGEM 2023 has developed the project “Horm-Own.” Describing the open-source platform we are designing for de novo hormone fermentation in the yeast Pichia Pastoris. To test the capacity of this yeast as a hormone factory we are targeting the sex hormone Testosterone. This product is far down a non-fungal native pathway, but previous iGEM teams and commercial laboratories have had success with similar projects. If successful, we plan to license the process to Open/Community Labs to refine until commercially viable and found a community Pharma Collective, in partnership with CMOs, to combat persistent shortages. [Wiki](https://2022.igem.wiki/boku-vienna)https://static.igem.org/peertube/streaming-playlists/hls/cd33c863-fb06-4054-95a3-0715f8ed88b4/f0b13011-025c-4924-9253-0b18865c9ae1-master.m3u8https://video.igem.org/videos/embed/rkFf82kGM4Vez5v3y5GAkw1200122023-09-14T08:44:14.101ZYES2023 Project PromotionsNOhttps://video.igem.org/w/d4ujqSidLRYGUTEuwB8fCuhttps://video.igem.org/lazy-static/thumbnails/2fb32bf9-4e04-4493-ac0d-cce297dfbeaf.jpgAFCM-Egypt: A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Ste... (2023) - Pro...**Title:** A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Stem Cells for tissue-specific exosomal mRNA delivery **Description:** Our team is introducing a novel therapeutic platform for Rheumatoid Arthritis, which is an autoimmune disease that targets patients' joints and has various systemic complications. Using the power of Mesenchymal Stem Cells, we’ve created a system to specifically target the auto-reactive cells and destroy them using our exosomal delivery system to deliver a CRISPR-Cas Cargo that initiates apoptosis of these cells, without affecting the body’s immune response against harmful microbes [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/61aa58be-678e-4746-8ba6-180cc2e55244/fdf9bcc3-d4e6-4302-b8d3-79db85b0f9b4-master.m3u8https://video.igem.org/videos/embed/d4ujqSidLRYGUTEuwB8fCu120072023-09-14T08:44:47.176ZYES2023 Project PromotionsNOhttps://video.igem.org/w/3jDY8XnJZEy8ScUAk1kEMvhttps://video.igem.org/lazy-static/thumbnails/f412d703-4f08-4242-8880-aba83f0732be.jpgAFCM-Egypt: A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Ste... (2023) - Pro...**Title:** A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Stem Cells for tissue-specific exosomal mRNA delivery **Description:** Our team is introducing a novel therapeutic platform for Rheumatoid Arthritis, which is an autoimmune disease that targets patients' joints and has various systemic complications. Using the power of Mesenchymal Stem Cells, we’ve created a system to specifically target the auto-reactive cells and destroy them using our exosomal delivery system to deliver a CRISPR-Cas Cargo that initiates apoptosis of these cells, without affecting the body’s immune response against harmful microbes [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/12cd104f-dc27-4f5e-b003-537df16f7aff/adf23913-1220-4b8f-b12e-898ee38f8f31-master.m3u8https://video.igem.org/videos/embed/3jDY8XnJZEy8ScUAk1kEMv120002023-09-14T08:46:09.060ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6BSPHh9aCyCWNSoFpv2C69https://video.igem.org/lazy-static/thumbnails/eac1f381-f1cf-4c19-8887-b8698a95124b.jpgAFCM-Egypt: A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Ste... (2023) - Pro...**Title:** A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Stem Cells for tissue-specific exosomal mRNA delivery **Description:** Our team is introducing a novel therapeutic platform for Rheumatoid Arthritis, which is an autoimmune disease that targets patients' joints and has various systemic complications. Using the power of Mesenchymal Stem Cells, we’ve created a system to specifically target the auto-reactive cells and destroy them using our exosomal delivery system to deliver a CRISPR-Cas Cargo that initiates apoptosis of these cells, without affecting the body’s immune response against harmful microbes [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/2d800bb9-84b1-4add-b001-8db82afb1152/4aa07358-c349-4b29-a476-5abb8cc15858-master.m3u8https://video.igem.org/videos/embed/6BSPHh9aCyCWNSoFpv2C69120062023-09-14T08:48:27.452ZYES2023 Project PromotionsNOhttps://video.igem.org/w/swJyYPDFpacyjCo5D5ZEZrhttps://video.igem.org/lazy-static/thumbnails/3b361250-5e29-4030-afbb-1ba2ab2ab2ac.jpgGXU-China: Microbial production of curcumin as a mildew-proof bio-pigment material. (2023) - Proj...**Title:** Microbial production of curcumin as a mildew-proof bio-pigment material. **Description:** Curcumin is a natural compound extracted from zingiberaceae, which has attracted worldwide attention because of its antioxidant, anticancer and mildew-proof functions. At present, the method of extracting curcumin from plants is squeezing and dissolving, which consumes a lot of energy and the output is far from meeting the market demand. At the same time, traditional mineral pigments are harmful to human body, while biological pigments are healthier. Therefore, we imagine using Escherichia coli to produce curcumin, and then using curcumin's characteristics of health, mildew resistance and oxidation resistance to boost the application of curcumin in medicine and color restoration of cultural relics. [Wiki](https://2022.igem.wiki/gxu-china)https://static.igem.org/peertube/streaming-playlists/hls/d6d826f0-164f-4dd4-9202-0b3256bb07a3/60c48288-0db8-4be1-8a5a-1a1640c5b09d-master.m3u8https://video.igem.org/videos/embed/swJyYPDFpacyjCo5D5ZEZr1190362023-09-14T08:49:03.373ZYES2023 Project PromotionsNOhttps://video.igem.org/w/q1ySD9SwGX3hWKLkpVEuN5https://video.igem.org/lazy-static/thumbnails/d8040de5-56cd-4ca1-9fd0-359f73454108.jpguniCRETE: DeltaSense (2023) - Project Promotion [English]**Title:** DeltaSense **Description:** At a time when Greek olive crops are plagued by the excessive use of pesticides, iGEM UniCRETE from the University of Crete came to protect the olive tree through its innovative project: Deltasense. It is about a cell-free diagnostic kit, which, using DNA aptamers and CAS12a enzymes, aims to detect deltamethrin (among others, responsible for causing toxicity in fish) in a water sample. Together we can preserve Crete’s rich heritage! [Wiki](https://2022.igem.wiki/unicrete)https://static.igem.org/peertube/streaming-playlists/hls/c26f962c-7062-489f-b6c3-f79b51e5adc0/f7c41813-b493-4b54-b039-b1e7579b2a0d-master.m3u8https://video.igem.org/videos/embed/q1ySD9SwGX3hWKLkpVEuN5910102023-09-14T08:50:55.262ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kKbPPJCGgXpUVUmv2GHSJ7https://video.igem.org/lazy-static/thumbnails/2e564767-e9c3-41ca-b298-47015e25351e.jpgAFCM-Egypt: A therapeutic approach for Rheumatoid Arthritis using Mesenchymal St... (2023) - Proj...**Title:** A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Stem Cells for tissue-specific exosomal mRNA delivery **Description:** Our team is introducing a novel therapeutic platform for Rheumatoid Arthritis, which is an autoimmune disease that targets patients' joints and has various systemic complications. Using the power of Mesenchymal Stem Cells, we’ve created a system to specifically target the auto-reactive cells and destroy them using our exosomal delivery system to deliver a CRISPR-Cas Cargo that initiates apoptosis of these cells, without affecting the body’s immune response against harmful microbes [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/9fe5499a-0488-4d8e-adfb-7cff7dff405a/14990744-7b05-4e1a-9053-f3e3c553dc5e-master.m3u8https://video.igem.org/videos/embed/kKbPPJCGgXpUVUmv2GHSJ7120022023-09-14T08:51:26.622ZYES2023 Project PromotionsNOhttps://video.igem.org/w/a2ESqpWaLMJiMfrr3DNUP2https://video.igem.org/lazy-static/thumbnails/4f737a9b-47c6-490a-8463-5d4c6409d4c3.jpgAIS-China: Telogen monster Combat (2023) - Project Promotion [English]**Title:** Telogen monster Combat **Description:** No abstract [Wiki](https://2022.igem.wiki/ais-china)https://static.igem.org/peertube/streaming-playlists/hls/491df21e-d83d-41c3-a807-fa5adbd9be77/34d9eb99-091d-4bf6-bf76-226c2f5a0dc9-master.m3u8https://video.igem.org/videos/embed/a2ESqpWaLMJiMfrr3DNUP212002042023-09-14T08:58:29.827ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eE7bpVuq3LHqHh6trpvGQ7https://video.igem.org/lazy-static/thumbnails/a46d3a76-c31d-4e84-bdaf-b02dc16d24f5.jpgHKUST: Be Cereu-free With Cereulight! (2023) - Project Promotion [English]**Title:** Be Cereu-free With Cereulight! **Description:** The 2023 HKUST iGEM team Cereulight is here to introduce our user-friendly, efficient whole-cell biosensor to address the alarming issue of 'Fried Rice Syndrome' caused by cereulide poisoning from Bacillus cereus contamination. Our genetically engineered Bacillus subtilis will detect the concentration of cereulide and indicate whether the food sample is safe to consume. Our revolutionary solution significantly increases the efficiency of current methods to protect consumers' health. [Wiki](https://2022.igem.wiki/hkust)https://static.igem.org/peertube/streaming-playlists/hls/6e98dfc5-81d4-4f6d-b5c1-f51955d0f75e/d6450fa2-2aba-41aa-8a77-2d879dacc6dd-master.m3u8https://video.igem.org/videos/embed/eE7bpVuq3LHqHh6trpvGQ71200522023-09-14T08:59:02.687ZYES2023 Project PromotionsNOhttps://video.igem.org/w/48pPnWdvXP6FWz4vmypXr9https://video.igem.org/lazy-static/thumbnails/907e6455-8c68-47c0-9ba6-d024defdbd62.jpguniCRETE: DeltaSense (2023) - Project Promotion [Greek]**Title:** DeltaSense **Description:** At a time when Greek olive crops are plagued by the excessive use of pesticides, iGEM UniCRETE from the University of Crete came to protect the olive tree through its innovative project: Deltasense. It is about a cell-free diagnostic kit, which, using DNA aptamers and CAS12a enzymes, aims to detect deltamethrin (among others, responsible for causing toxicity in fish) in a water sample. Together we can preserve Crete’s rich heritage! [Wiki](https://2022.igem.wiki/unicrete)https://static.igem.org/peertube/streaming-playlists/hls/19544ccf-12dd-4862-a0c2-b4a6c7b84a46/5e0801de-1a27-4c24-bd42-ca484e22b507-master.m3u8https://video.igem.org/videos/embed/48pPnWdvXP6FWz4vmypXr991002023-09-14T09:01:38.399ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jqru8WZBKCBD3bSULmR2bLhttps://video.igem.org/lazy-static/thumbnails/f455a576-c909-4344-95e2-fe85675df0cc.jpgCity-of-London-UK: Genoswitch (2023) - Project Promotion [English]**Title:** Genoswitch **Description:** Genoswitch is a team with members from both CLSG and CLS. Our aim is to create a revolutionary diagnostic mechanism that would test for endometriosis, PCOS, breast and ovarian cancer simultaneously. This introduction is given by three leaders of our team: Emily, Rishabh and Ryan, who explain how we plan to bring our project to the forefront of medical diagnostics while raising awareness for women’s health [Wiki](https://2022.igem.wiki/city-of-london-uk)https://static.igem.org/peertube/streaming-playlists/hls/952e0d57-fd3c-47b1-b15e-4cb841df89fc/0c2af8e1-f4c4-47ae-8afc-777cbf72d817-master.m3u8https://video.igem.org/videos/embed/jqru8WZBKCBD3bSULmR2bL12001022023-09-14T09:12:03.960ZYES2023 Project PromotionsNOhttps://video.igem.org/w/iENx4ZnHb9U6NZbVBt2MADhttps://video.igem.org/lazy-static/thumbnails/ad9b19fe-377e-427a-8d69-b7dafb0721c2.jpgCCA-San-Diego: FUMigate: A Novel Salmon Antiparasitic (2023) - Project Promotion [English]**Title:** FUMigate: A Novel Salmon Antiparasitic **Description:** With unethical and unsustainable traditional fishing methods rapidly depleting marine life, aquaculture and fish farming are becoming popularized as better environmental options for seafood. We aim to produce an antiparasitic natural product within fish by delivering to them a series of genes packaged in chitosan nanoparticles. The antiparasitic compound being considered is fumagillin, which has demonstrated activity against the myxozoan parasites T. bryosalmonae and N. salmonis. Production through a synthetic biological means would serve as a promising alternative to industrial synthesis, which can be unwieldy. [Wiki](https://2022.igem.wiki/cca-san-diego)https://static.igem.org/peertube/streaming-playlists/hls/8f164c92-1dda-413c-b5c9-048272171425/f367e072-5814-41f2-92ca-642fac672ea0-master.m3u8https://video.igem.org/videos/embed/iENx4ZnHb9U6NZbVBt2MAD930482023-09-14T09:12:58.986ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tLq5EXzKvS1JrC6htb8UfQhttps://video.igem.org/lazy-static/thumbnails/ffce2c8c-b8ee-4930-b35c-c900c3c6bb42.jpgGEC-Guangzhou: Targeted therapy for colorectal cancer (2023) - Project Promotion [English]**Title:** Targeted therapy for colorectal cancer **Description:** We used Nissle 1917 as the chassis microbe because it is safe, reliable and easy to edit for the human body. We designed two modules of targeting and therapy. For the targeted part, we fusion expression of INP and HIPA genes, INP can anchor HIPA to the cell wall of engineered bacteria, and HIPA protein can recognize and bind to the receptor protein on the surface of cancer cells. In the physiotherapy module we introduced cytosine deaminase (CDase), which converts non-toxic 5-FC deamination into 5-FU, a classic chemotherapy drug for colorectal cancer. We hope to use N1917 to convert non-toxic 5-FC into 5-FU around intestinal cells to kill cancer cells and reduce the side effects of 5-FU treatment. [Wiki](https://2022.igem.wiki/gec-guangzhou)https://static.igem.org/peertube/streaming-playlists/hls/e0da4f53-3ae8-4bbe-b5d1-e2e91ba09ec4/273dd793-59bc-433c-a5f3-d55ac522f802-master.m3u8https://video.igem.org/videos/embed/tLq5EXzKvS1JrC6htb8UfQ950382023-09-14T10:08:51.859ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nHy8pSTGwAkZU5nvGuKhf6https://video.igem.org/lazy-static/thumbnails/52c1a845-ff83-4f79-a3d2-2fa538d5a078.jpgUZurich: Lactoback (2023) - Project Promotion [English]**Title:** Lactoback **Description:** Endometriosis is a debilitating condition affecting 10% of women worldwide. At iGEM UZurich, we are exploring the link between endometriosis and a disbalanced vaginal microbiome, developing a bacterial therapy to reestablish vaginal health. We are also addressing the stigma and lack of awareness surrounding endometriosis. Having spoken with patients and doctors alike, we are now educating younger generations so they can recognise endometriosis and speak about it openly. [Wiki](https://2022.igem.wiki/uzurich)https://static.igem.org/peertube/streaming-playlists/hls/afdd34b4-b4b5-45bf-a51b-d20de349a2a9/fbcd7235-2002-46b8-9ba7-8dfa37fa1a1a-master.m3u8https://video.igem.org/videos/embed/nHy8pSTGwAkZU5nvGuKhf61200402023-09-14T10:11:43.403ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jKo1fPWkUQmE3aM5TP4JW4https://video.igem.org/lazy-static/thumbnails/bdd23f8c-5f5b-4a73-9082-5bffd54ba390.jpgWageningenUR: A novel approach towards combating frost damage in fruit trees usi... (2023) - Proj...**Title:** A novel approach towards combating frost damage in fruit trees using synthetic biology **Description:** The aim of our project is to collaborate with farmers to create a sustainable solution against frost damage of fruit trees using synthetic biology. As our chassis, we use Pseudomonas fluorescens, a soil bacterium which is native to the rhizosphere of many staple crops. By engineering this microorganism, we aim to restore the flowering time of fruit trees and keep flowers in the buds during warm winters and early springs, protecting them from getting damaged by out-of-season frost. Once the risk of frost is reduced, the bacteria can be easily removed from the soil, allowing for the flowering process to continue. [Wiki](https://2022.igem.wiki/wageningenur)https://static.igem.org/peertube/streaming-playlists/hls/97d309e7-6f8f-4ca3-807d-e1a5021f7def/1913cc77-1ac1-4b66-9b58-e0fe3e6ce270-master.m3u8https://video.igem.org/videos/embed/jKo1fPWkUQmE3aM5TP4JW411801252023-09-14T10:37:27.306ZYES2023 Project PromotionsNOhttps://video.igem.org/w/biocXKYeLXJKG9ALCsMYGmhttps://video.igem.org/lazy-static/thumbnails/3793b5fb-d3d2-4073-91fb-58160f2441ec.jpgSorbonne-U-Paris: PseudoDetox : Breaking the Chains of Pollution (2023) - Project Promotion [Engl...**Title:** PseudoDetox : Breaking the Chains of Pollution **Description:** Join us on a journey to restore our planet’s soil health with Pseudomonas putida, nature’s ally in the fight against soil contamination. Discover how this remarkable bacterium, through its unique abilities, offers eco-friendly solutions to combat industrial pollutants like PAHs. Follow our team’s efforts as we work to enhance its natural detoxifying properties, working towards a greener and more sustainable future for all. [Wiki](https://2022.igem.wiki/sorbonne-u-paris)https://static.igem.org/peertube/streaming-playlists/hls/5368b73c-6750-4d84-b1f7-b7cc99229c2c/6f83e249-e401-4149-8525-e8a4ff91234e-master.m3u8https://video.igem.org/videos/embed/biocXKYeLXJKG9ALCsMYGm11501262023-09-14T10:40:43.405ZYES2023 Project PromotionsNOhttps://video.igem.org/w/utXjma8q2FeZhKZzZwsq9Mhttps://video.igem.org/lazy-static/thumbnails/57b0035c-8121-475c-814c-c87cb827123b.jpgWHS-Fremont: The Sonic Screwdriver: an ultrasound-based system for cellular imaging (2023) - Proj...**Title:** The Sonic Screwdriver: an ultrasound-based system for cellular imaging **Description:** Fluorescence is difficult to use outside of cultured cells or surgically accessed regions of biological tissue. Our goals are to develop an ultrasound sensitive mechanism to image the behavior of specific molecules within cells using gas vesicles. [Wiki](https://2022.igem.wiki/whs-fremont)https://static.igem.org/peertube/streaming-playlists/hls/e6a70dde-5165-4fae-a7f2-b40a0e2189ad/9b8d4011-54f6-4ddf-9afc-084b4fadaaa3-master.m3u8https://video.igem.org/videos/embed/utXjma8q2FeZhKZzZwsq9M1100202023-09-14T10:41:13.397ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2uNJPpxbzzzR8jidqy4YHjhttps://video.igem.org/lazy-static/thumbnails/312b5045-0d71-4198-9e3d-4e719fffa0d5.jpgStony-Brook: Nitroscillator: Utilizing Gene Oscillators to Engineer Sustainable ... (2023) - Proj...**Title:** Nitroscillator: Utilizing Gene Oscillators to Engineer Sustainable Nitrogen-Fixing Bacteria **Description:** Nitrogen-based fertilizers are necessary to sustain the agricultural needs of growing global populations. There are two main ways nitrogen is supplemented to plants: through natural nitrogen-fixing organisms and synthetic fertilizers. However, the creation and application of these fertilizers lead to a plethora of environmental problems with economic and health ramifications. The 2023 Stony Brook iGEM team proposes an alternate fertilizer: a bacteria that fixes nitrogen at regular, adjustable intervals. [Wiki](https://2022.igem.wiki/stony-brook)https://static.igem.org/peertube/streaming-playlists/hls/0c1ec486-85af-49ba-9896-b0a2c7fc8234/80e8b175-9ed0-47e7-941e-44e1d1c5ef7c-master.m3u8https://video.igem.org/videos/embed/2uNJPpxbzzzR8jidqy4YHj1170962023-09-14T10:43:19.727ZYES2023 Project PromotionsNOhttps://video.igem.org/w/69sCXYvwPsbscKrKuwhk66https://video.igem.org/lazy-static/thumbnails/8c590ae7-88c9-4ac9-8103-c0154be4dcb8.jpgSHSBNU-China: Heart Valve from Titin Protein Fiber (2023) - Project Promotion [English]**Title:** Heart Valve from Titin Protein Fiber **Description:** Our iGEM team aims to improve artificial heart valve bio-compatibility and strength using Titin protein fibers synthesized via synthetic biology. Inspired by a study where microbes produced these high-performance fibers, we seek to harness their unique mechanical properties for heart valve enhancement. This project showcases synthetic biology's potential in addressing major biomedical challenges. [Wiki](https://2022.igem.wiki/shsbnu-china)https://static.igem.org/peertube/streaming-playlists/hls/29ac0f2e-18a0-414e-8516-9a5a925e56f3/ad9d70f2-687c-4304-b528-b5d5d14f214f-master.m3u8https://video.igem.org/videos/embed/69sCXYvwPsbscKrKuwhk661200342023-09-14T10:43:50.303ZYES2023 Project PromotionsNOhttps://video.igem.org/w/m1gpLMGajQkNhJrxtLHBXXhttps://video.igem.org/lazy-static/thumbnails/960c86a3-477a-4e91-b117-78db8177b231.jpgNYU-Abu-Dhabi: HypeColl - Recombinant Collagen-like Protein (2023) - Project Promotion [English]**Title:** HypeColl - Recombinant Collagen-like Protein **Description:** The NYUAD iGEM team seeks to revolutionize tissue engineering by creating a sustainable bacterial collagen-like protein, replacing animal-derived collagen. Collagen has a vast market and is crucial in drug delivery, tissue engineering, and corneal health. Our project aims to provide a scalable, cost-effective solution to the challenges posed by current collagen sources. [Wiki](https://2022.igem.wiki/nyu-abu-dhabi)https://static.igem.org/peertube/streaming-playlists/hls/a2004515-fec0-4e51-bf47-e1e68d3291e1/29c3f46f-9874-431c-9746-f4618520bb53-master.m3u8https://video.igem.org/videos/embed/m1gpLMGajQkNhJrxtLHBXX1190272023-09-14T10:51:02.166ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hTSAt6VnPH5R4RhnK53125https://video.igem.org/lazy-static/thumbnails/5952be8d-d452-4c51-b25d-1e41a09e1796.jpgGroningen: Bye-O-Film (2023) - Project Promotion [English]**Title:** Bye-O-Film **Description:** A brief insight into the project and vision of the iGem Groningen team 2023 “Bye-O-Film” and their efforts to provide a suitable and comforting solution for people that suffer from joint replacement surgeries. The focus lays in detecting, tracking and fighting the formation of bacteria (biofilms) around implants with advanced biological and technological solutions. A fusion that hopefully will reshape the post-treatment methods for people with medical implants. [Wiki](https://2022.igem.wiki/groningen)https://static.igem.org/peertube/streaming-playlists/hls/88d054a5-a408-427f-a0f5-5ef06adc68ee/3c889c5d-a7df-43bc-9bc3-789ab8b9a6ff-master.m3u8https://video.igem.org/videos/embed/hTSAt6VnPH5R4RhnK531251170192023-09-14T10:51:36.126ZYES2023 Project PromotionsNOhttps://video.igem.org/w/rCzUzuVTEHL7yVCQvzjxu9https://video.igem.org/lazy-static/thumbnails/696dc1c3-e5f1-46ee-8e6f-ff739044b250.jpgTU-Braunschweig: Revolutionizing Bipolar Disorder Care with Lithium Riboswitches (2023) - Project...**Title:** Revolutionizing Bipolar Disorder Care with Lithium Riboswitches **Description:** Discover 'Li+onSwitch,' the innovative project led by the TU Braunschweig Team. We're utilizing Riboswitches to detect Lithium in samples. Lithium is often used as a mood stabilizer for conditions like bipolar disorder. However, it can become toxic at certain levels, necessitating frequent medical check-ups - a burden for many patients, especially in developing nations where such care may not be accessible. Learn about our research addressing this critical issue. [Wiki](https://2022.igem.wiki/tu-braunschweig)https://static.igem.org/peertube/streaming-playlists/hls/cf90234a-0ee8-46e0-8d32-05120e6999bc/974b3aaa-3500-4c04-9726-3c4ffe9927d4-master.m3u8https://video.igem.org/videos/embed/rCzUzuVTEHL7yVCQvzjxu91200742023-09-14T10:59:09.907ZYES2023 Project PromotionsNOhttps://video.igem.org/w/7vQweB6q8k7hh1mUM9HLdohttps://video.igem.org/lazy-static/thumbnails/2da78669-6e3a-41e9-ae42-ea5827043aa9.jpgSMBU: CRISPR-Cas gene editing systems to be, or not to be? (2023) - Project Promotion [English]**Title:** CRISPR-Cas gene editing systems to be, or not to be? **Description:** We believe that next-generation gene therapy relies on precise genome editing with programmable nucleases, specifically CRISPR-Cas. However, there's lots of concerns due to treats that these systems can cause in case of wrong application. And that is what sparks huge social debates. Our goal is to create a system that will allow scientists to bring to society the idea of the safety and stability of such systems and to explain all the benefits of gene editing technologies. [Wiki](https://2022.igem.wiki/smbu)https://static.igem.org/peertube/streaming-playlists/hls/34c14db8-6199-45d4-8237-0bd3d9212206/f3d8effc-ad0f-4d1f-87c2-0d908a1e4c87-master.m3u8https://video.igem.org/videos/embed/7vQweB6q8k7hh1mUM9HLdo1180462023-09-14T11:08:09.400ZYES2023 Project PromotionsNOhttps://video.igem.org/w/emMscEPkUGmjWSkJq5wc3xhttps://video.igem.org/lazy-static/thumbnails/4a445f6a-2dfb-4e6b-a677-d1b93292cbdc.jpgFreiburg: This is CELLECT (2023) - Project Promotion [English]**Title:** This is CELLECT **Description:** What, if we told you there is a way to ensure genetic stability…. In our approach, we combine a naturally occurring toxin-antitoxin system and couple its regulation to a product-specific riboswitch. With CELLECT we introduce an optimized strategy for recombinant protein production. [Wiki](https://2022.igem.wiki/freiburg)https://static.igem.org/peertube/streaming-playlists/hls/6c2db048-ed4f-40d1-b667-476e3949a10f/e1692a1e-7235-4e43-a98c-ce3f8c34761d-master.m3u8https://video.igem.org/videos/embed/emMscEPkUGmjWSkJq5wc3x12003172023-09-14T12:10:34.030ZYES2023 Project PromotionsNOhttps://video.igem.org/w/qYZMe22jZd5FJuUYWhgPmThttps://video.igem.org/lazy-static/thumbnails/a49c4b05-0105-4ead-8718-d8af7589a722.jpgMcMasterU: HelmiGuard: More than a Vaccine (2023) - Project Promotion [English]**Title:** HelmiGuard: More than a Vaccine **Description:** Health is not a Wealth Issue. Team McMasterU is Proud to present our annual project, HelmiGuard. Join us in the battle against health inequality, as we venture to create a revolutionary multi-vaccine to fight two prevalent Neglected Tropical Diseases. HelmiGuard is more than a vaccine - it is a testament to the potential of synthetic biology to change the world. [Wiki](https://2022.igem.wiki/mcmasteru)https://static.igem.org/peertube/streaming-playlists/hls/ca509644-9f7c-44e0-abfe-644d0cddd36f/e410a1d1-5077-4b5c-a08a-43e96fade00e-master.m3u8https://video.igem.org/videos/embed/qYZMe22jZd5FJuUYWhgPmT1210352023-09-14T12:17:38.046ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hEM1hZZtakSJgcVkYrKWBPhttps://video.igem.org/lazy-static/thumbnails/4d9b1a8b-911b-44bb-9d68-4ed7b86f375a.jpgSMS-Shenzhen: Nucleic Acid Detection Platform Based on CRISPR System (2023) - Project Promotion [...**Title:** Nucleic Acid Detection Platform Based on CRISPR System **Description:** This video illustrates the uniqueness of our product, a nucleic acid detection platform based on CRISPR system, amid the backdrop of a pandemic. Our product focuses on collecting, detecting, and disinfecting pathogens in the air, using RPA instead of PCR to achieve the goal of constant temperature and high sensitivity. In the future, we hope to collaborate with the CDC and enhance current disease prevention measures. [Wiki](https://2022.igem.wiki/sms-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/86fc3798-6b1f-4b59-b13c-02a7e68f703d/bf943a19-69fa-4dc6-a261-7a9d70168227-master.m3u8https://video.igem.org/videos/embed/hEM1hZZtakSJgcVkYrKWBP990342023-09-14T12:25:51.757ZYES2023 Project PromotionsNOhttps://video.igem.org/w/9WnGPzD1vXtiepx3iPgTuwhttps://video.igem.org/lazy-static/thumbnails/c0cbea03-18c2-44a9-bfeb-c9817345032c.jpgNJMU-China: Breaking the silence of the deep sea: One encounter at 52Hz frequency (2023) - Projec...**Title:** Breaking the silence of the deep sea: One encounter at 52Hz frequency **Description:** Autism spectrum disorder (ASD) is a developmental disability, and the prevalence of ASD has been increasing during the past few years. Every child with autism is like a solitary wandering 52Hz whale. We propose to utilize small molecule metabolites the Gut Microbial Metabolite Library to bind to the autoantibodies in brain of children with ASD by competitive inhibition, thus blocking autoantibody to neurons and alleviating neural damage to a certain extent in an immune-related subtype of ASD,which provides a new therapeutic target for the treatment of ASD.Through our project,we hope to help more autistic children,thus letting the lonely whales integrate into the great ocean of society. [Wiki](https://2022.igem.wiki/njmu-china)https://static.igem.org/peertube/streaming-playlists/hls/4860a5f7-12f0-4611-a182-7f9ec153698a/ffca22ea-c6c9-4ba7-b850-1c74d0beb657-master.m3u8https://video.igem.org/videos/embed/9WnGPzD1vXtiepx3iPgTuw1200122023-09-14T12:26:24.829ZYES2023 Project PromotionsNOhttps://video.igem.org/w/trDkEEx5tmWRSuPCoru938https://video.igem.org/lazy-static/thumbnails/15338bf8-79bc-4630-9ae0-4226893cd887.jpgNWU-CHINA-A: Programmable probiotics for inflammatory bowel diseas (2023) - Project Promotion [En...**Title:** Programmable probiotics for inflammatory bowel diseas **Description:** Our project focuses on the treatment of Inflammatory Bowel Diseases(IBD)by building engineered probiotics. The concentration of ROS is an important factor in the occurrence and development of IBD. Catalase and superoxide dismutase can reduce ROS ，while Elafin is considered to be a protective factor for IBD. So we plan to express these enzymes in Escherichia coli Nissle 1917 to relieving IBD and coat them with adventitias to resist stomach acid. [Wiki](https://2022.igem.wiki/nwu-china-a)https://static.igem.org/peertube/streaming-playlists/hls/de3b595e-4dee-486a-8e56-6a0c7b6bdacb/56475e40-85e7-4e5f-8785-86466f982487-master.m3u8https://video.igem.org/videos/embed/trDkEEx5tmWRSuPCoru9381195262023-09-14T12:28:17.030ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gEWX6xnb2dYFJzwkNjbcAThttps://video.igem.org/lazy-static/thumbnails/ded67b5d-f5dc-462e-9c57-aa44fffa44b9.jpgNAU-CHINA: BISTRO: Biological Sensing, Tracking, and Reduction of Ochratoxin A (2023) - Project P...**Title:** BISTRO: Biological Sensing, Tracking, and Reduction of Ochratoxin A **Description:** This project focuses on detecting and degrading ochratoxin A (OTA) in red wine, a popular global beverage. OTA is a toxic mycotoxin widely present in wine, posing health risks. By using specific binding and amplification techniques, the detection module enables convenient OTA detection. The degradation module utilizes probiotics to create a functional polymer network with the OTA-degrading enzyme M-CPA, effectively converting OTA into non-toxic compounds. Overcoming challenges like wine's pH and alcohol content, this project ensures safe and efficient OTA degradation in wine. We offers a novel approach for sensing, tracking, and reduction of ochratoxin A, which holds significant importance for wine safety. [Wiki](https://2022.igem.wiki/nau-china)https://static.igem.org/peertube/streaming-playlists/hls/7ee9350e-8951-48c1-8f3d-634084b6dea3/5472341a-1b3b-463d-83bc-1282ddd8481d-master.m3u8https://video.igem.org/videos/embed/gEWX6xnb2dYFJzwkNjbcAT1190522023-09-14T12:28:47.708ZYES2023 Project PromotionsNOhttps://video.igem.org/w/h8hVkfTxh6GVgaPMJqYWfbhttps://video.igem.org/lazy-static/thumbnails/94514042-7b40-429a-bbf6-80aaa2f1e9af.jpgNPU-CHINA: EnzyArt Scout：A smart enzymology based nitrite detector and degrader (2023) - Project ...**Title:** EnzyArt Scout：A smart enzymology based nitrite detector and degrader **Description:** This project aims to develop an enzyme-based electrochemical sensor for the high-convenient detection and accurate-dynamic regulation of nitrite levels. Nitrite reductase from recombinant Escherichia coli will be utilized, and rational design together with enzyme modification strategies will be employed to enhance its activity and stability. Furthermore, we optimize the fermentation process to enable a large-scale production of the enzyme preparation. After immobilization onto a nano-gold particle electrode, the enzyme facilitates the conversion of nitrite concentration into electrical signals. The current generates on the electrode is in direct proportion to the nitrite content thereby enabling precise detection in the sample to be measured. Meanwhile, an electronic switch would be designed to regulate nitrite reductase delivery to samples. So that in the simultaneous detection of nitrite content, initiation of nitrite reductase delivery can be triggered by this switch when the current signal surpasses the preset threshold, achieving harmless treatment of nitrite. This device is characterized by its low cost, ease of operation and portability, making it suitable for household use as well as food production or sewage treatment. [Wiki](https://2022.igem.wiki/npu-china)https://static.igem.org/peertube/streaming-playlists/hls/8296da1a-e5ee-469e-9ac2-d2f52b9d210e/f698af48-a52e-46fb-9fcb-31fa7a778bb8-master.m3u8https://video.igem.org/videos/embed/h8hVkfTxh6GVgaPMJqYWfb1190182023-09-14T12:30:08.419ZYES2023 Project PromotionsNOhttps://video.igem.org/w/n4PR4wLv1HmDPEfvoBoQD3https://video.igem.org/lazy-static/thumbnails/0b5f7f0f-8daf-4f93-9ea5-e50dd466ace9.jpgSquirrel-Guangzhou: The Biosynthesis and Industrial Production of Steviol Glycos... (2023) - Proj...**Title:** The Biosynthesis and Industrial Production of Steviol Glycosides **Description:** Stevioside is a natural and healthy alternative to sugar. Instead of relying solely on the traditionally slow process of growing stevia, we have innovated using E. coli as host organism. This accelerates the synthesis of Stevioside. Our mechanism involves converting Glucose to the MEP pathway and progressing through GGPPS, CDPS, KS, KO, and KAH. Ultimately, it reaches the Glycosyl transferase stage, transforming into Reb A, Reb D, and Reb M. [Wiki](https://2022.igem.wiki/squirrel-guangzhou)https://static.igem.org/peertube/streaming-playlists/hls/aa98a115-d19b-46d4-8b0b-6bc1d3d2dbc4/9178b6a0-2dce-46fd-a580-aa0671a90106-master.m3u8https://video.igem.org/videos/embed/n4PR4wLv1HmDPEfvoBoQD3890222023-09-14T12:40:26.874ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4SujiaRZxSNqfNURM8enyjhttps://video.igem.org/lazy-static/thumbnails/0270e617-2f86-4b9b-9904-18f5cdf16f14.jpgSDU-CHINA: SDU­­­­­-CHINA : Cell Intelligence (CI) For PHB Production (2023) - Project Promotion ...**Title:** SDU­­­­­-CHINA : Cell Intelligence (CI) For PHB Production **Description:** PHB is a product with great application potential, which can be applied to medical and life products, etc. However, its current production process has problems such as high production cost, low output and serious pollution, so our team chooses to build an intelligent cell factory to produce PHB. We developed a three-layer dynamic regulation model for PHB production within a smarter cell factory. It results in a greener, cost-effective, and more productive production process. We're actively working on commercializing PHB products, believing it will become a crucial alternative to conventional plastics. [Wiki](https://2022.igem.wiki/sdu-china)https://static.igem.org/peertube/streaming-playlists/hls/1f580df3-681d-4a8c-9da1-1eace61e561e/008cf23f-09b8-47b3-b313-aa9bd8be6040-master.m3u8https://video.igem.org/videos/embed/4SujiaRZxSNqfNURM8enyj1190482023-09-14T12:41:17.610ZYES2023 Project PromotionsNOhttps://video.igem.org/w/39EBJRHtyFziYgf39znp34https://video.igem.org/lazy-static/thumbnails/27bf8c41-e897-4eec-b77f-ec7adad95e39.jpgIISER-Bhopal: KerariNoMore (2023) - Project Promotion [English]**Title:** KerariNoMore **Description:** With rising global population and living standards, the consumption of poultry meat has been growing rapidly. In 2023 alone, global chicken meat production is projected to be 103.4 million metric tons. A consequence of this has been the generation and accumulation of feather waste. Owing to the strong disulphide bonds, they remain intact and are tricky to dispose of. We have identified and are exploiting enzymatic pathways that can solve this issue sustainably, producing a value-added product. [Wiki](https://2022.igem.wiki/iiser-bhopal)https://static.igem.org/peertube/streaming-playlists/hls/1168068a-8b78-4e88-9630-333df15d2a8b/96c2239c-2ea9-47ef-99e1-db67ddde6603-master.m3u8https://video.igem.org/videos/embed/39EBJRHtyFziYgf39znp341190512023-09-14T12:43:37.809ZYES2023 Project PromotionsNOhttps://video.igem.org/w/crGmfvsfFhpdMTXpYprTEXhttps://video.igem.org/lazy-static/thumbnails/af57c444-c9a0-4586-8dfd-6fc353db80dc.jpgCalgary: CholesterLock (2023) - Project Promotion [English]**Title:** CholesterLock **Description:** iGEM Calgary presents CholesterLock, a novel proof of concept for an alternative high cholesterol medication. It employs synthetic biology to develop a fusion protein that targets the NPC1L1 receptor in the small intestine, blocking cholesterol absorption. Comprising an Immunoglobulin G fragment, a linker, and a hedgehog protein fragment bound to cholesterol, this innovative approach holds promise as a highly specific, cost-effective, and low side-effect alternative to traditional medications. [Wiki](https://2022.igem.wiki/calgary)https://static.igem.org/peertube/streaming-playlists/hls/5caafc4d-1311-4e9f-8fde-b471cb7c1a97/d86a46de-a558-4a19-af12-6d7fd8ac2f7f-master.m3u8https://video.igem.org/videos/embed/crGmfvsfFhpdMTXpYprTEX1180332023-09-14T12:50:46.466ZYES2023 Project PromotionsNOhttps://video.igem.org/w/7CLZL5k3JBeZmAnBGgUJeKhttps://video.igem.org/lazy-static/thumbnails/70bfd53f-30c5-424b-aadc-e81c8fb2b433.jpgUiOslo-Norway: Detection of endometriosis associated miRNA with Cas proteins (2023) - Project Pro...**Title:** Detection of endometriosis associated miRNA with Cas proteins **Description:** Endometriosis is a disease that affects women of reproductive age worldwide, caused by the abnormal growth of the endometrial lining outside of the uterus. While the disease can cause various symptoms, the most common are varying degrees of pain and discomfort. This has individual effects and socioeconomic implications, such as increased sick leave and mental health issues. Our goal is to develop a cheaper, safer, and more efficient diagnostic method for endometriosis using blood-miRNA biomarkers and a CRISPR-dCas12 detection system, which would be a significant step towards making this essential diagnostic tool available to people in regions of the world where labs are scarce and less well-equipped. An earlier diagnosis, has the potential to improve the quality of life for affected women. It is also worth mentioning that this diagnostic method can be modified and applied to other diseases in the future. [Wiki](https://2022.igem.wiki/uioslo-norway)https://static.igem.org/peertube/streaming-playlists/hls/35b9565d-8007-4a97-835c-582baa8b9d55/e4f7bb46-7467-4778-aed7-dc8630f19cb1-master.m3u8https://video.igem.org/videos/embed/7CLZL5k3JBeZmAnBGgUJeK1170542023-09-14T12:54:49.390ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nooMNsWxSLUNzzPMUwmcBehttps://video.igem.org/lazy-static/thumbnails/11283482-b5a4-42c7-bc8f-2f61f439b009.jpgTsukuba: AMINOSHIP - A solution for reducing gas emissions from ships applying b... (2023) - Proj...**Title:** AMINOSHIP - A solution for reducing gas emissions from ships applying biosynthetic products **Description:** While shipping is an important means of logistics worldwide, barnacles and other species adhering to ships increase their weight and resistance, which in turn increases fuel consumption. Conventional paints can solve this problem, but they are environmentally toxic and are being banned by treaty. Therefore, we are using recombinant Escherichia coli to produce an adhesion inhibitor derived from a sealife. Our goal is to produce and mass synthesize environmentally friendly adhesion inhibitors. [Wiki](https://2022.igem.wiki/tsukuba)https://static.igem.org/peertube/streaming-playlists/hls/ad3051c6-880a-40cb-afbe-0310884429c7/7070001b-016c-4a9b-8099-01a86ed949de-master.m3u8https://video.igem.org/videos/embed/nooMNsWxSLUNzzPMUwmcBe1140192023-09-14T12:55:42.824ZYES2023 Project PromotionsNOhttps://video.igem.org/w/si7uWgfyRTcUaSLs4fGvv1https://video.igem.org/lazy-static/thumbnails/fc4d49cb-613e-44d5-a23c-f21f87547df8.jpgUiOslo-Norway: Detection of endometriosis associated miRNA with Cas proteins (2023) - Project Pro...**Title:** Detection of endometriosis associated miRNA with Cas proteins **Description:** Endometriosis is a disease that affects women of reproductive age worldwide, caused by the abnormal growth of the endometrial lining outside of the uterus. While the disease can cause various symptoms, the most common are varying degrees of pain and discomfort. This has individual effects and socioeconomic implications, such as increased sick leave and mental health issues. Our goal is to develop a cheaper, safer, and more efficient diagnostic method for endometriosis using blood-miRNA biomarkers and a CRISPR-dCas12 detection system, which would be a significant step towards making this essential diagnostic tool available to people in regions of the world where labs are scarce and less well-equipped. An earlier diagnosis, has the potential to improve the quality of life for affected women. It is also worth mentioning that this diagnostic method can be modified and applied to other diseases in the future. [Wiki](https://2022.igem.wiki/uioslo-norway)https://static.igem.org/peertube/streaming-playlists/hls/d4f1411b-ee21-49c9-b1c7-3e624e327626/a4503992-ca1b-4b54-b9ef-408337609875-master.m3u8https://video.igem.org/videos/embed/si7uWgfyRTcUaSLs4fGvv11200102023-09-14T13:01:56.326ZYES2023 Project PromotionsNOhttps://video.igem.org/w/cXmsA72JeNeAt3vFsgEWnJhttps://video.igem.org/lazy-static/thumbnails/90d510ee-8e77-46bd-b214-b40c977990d0.jpgBJEA-China: Urgently in need of a "Nicotine Killer" (2023) - Project Promotion [English]**Title:** Urgently in need of a "Nicotine Killer" **Description:** We wish to use a more creative way to express the content of our project, therefore we used different memes to represent other parts of our project. Our project focuses on addressing the harmful effects of nicotine in tobacco, including its addictive nature and adverse impact on human health. Our project explores nicotine degradation by gut bacteria, particularly the role of the enzyme NicX, as a potential approach to alleviate smoking-related issues. Surface display technology and mutagenesis techniques were employed to enhance the efficiency of NicX in nicotine degradation. Surface display technology involves the expression of NicX enzyme on the cell surface using the anchor protein Lpp-OmpA. The successful fusion of NicX with Lpp-OmpA was confirmed through PCR amplification and gel electrophoresis analysis. On the other hand, mutagenesis techniques utilized Alphafold to predict the protein structure of NicX based on its amino acid sequence. The docking of nicotine molecules was performed in Autodock to identify the active site. Subsequently, different mutations were introduced to the active site, and the resulting variants were tested to determine the most efficient nicotine-degrading enzyme. The project faces challenges in identifying the optimal NicX variant and effectively applying the research findings to address smoking-related issues. If successful, our project has the potential to make a significant contribution to society by reducing tobacco addiction and mitigating the adverse effects of smoking on individual health and the overall community. [Wiki](https://2022.igem.wiki/bjea-china)https://static.igem.org/peertube/streaming-playlists/hls/60cf0a61-d594-4486-b8ef-2d773fe496e4/1ec1f2bf-e019-4114-b301-af4f97ec7307-master.m3u8https://video.igem.org/videos/embed/cXmsA72JeNeAt3vFsgEWnJ1200752023-09-14T13:02:50.026ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6iCaUeYwcK4fgpGYxYSp74https://video.igem.org/lazy-static/thumbnails/2772e135-b8b8-451d-9bcc-7e345559b831.jpgFZPt-CHINA: Microalgae-based and Bacteria-assisted (2023) - Project Promotion [English]**Title:** Microalgae-based and Bacteria-assisted **Description:** In this year's study, our team co-cultured Phaeodactylum tricornutum and Erythrobacter aquimaris, building on the previous year's work. This co-culture strategy is designed to optimize the synergistic interaction between these two organisms, enhancing the efficiency and efficacy of wastewater treatment. P. tricornutum exhibits remarkable biodegradability and plays a key role in the wastewater treatment process. Bacteria produce crucial metabolites that facilitate the decomposition and removal of organic waste. By co-cultivating these two organisms, their combined effects can be harnessed for more efficient sewage treatment outcomes. In addition, our team has devised a novel enclosure apparatus to house P. tricornutum and Erythrobacter marine, ensuring a secure and stable environment while facilitating subsequent recovery operations to ensure sustainable system operation. Simultaneously, encapsulation ensures that biosecurity measures are upheld while minimizing potential risks. [Wiki](https://2022.igem.wiki/fzpt-china)https://static.igem.org/peertube/streaming-playlists/hls/2af3a0dd-4fec-409c-8afa-7148b1b4844b/23bb7fb8-05c9-4e66-a187-0edb824c1137-master.m3u8https://video.igem.org/videos/embed/6iCaUeYwcK4fgpGYxYSp741200682023-09-14T13:09:39.277ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eYtkArL5gF6tVCdLUDmquPhttps://video.igem.org/lazy-static/thumbnails/02dc33cd-6d58-4fc1-bab4-1fee78eb9a14.jpgSUSTech-Shenzhen: Type VI secretion system-based drug delivery system：A new begi... (2023) - Proj...**Title:** Type VI secretion system-based drug delivery system：A new beginning of polypeptide drug release **Description:** In an attempt to address the poor drug stability, low membrane permeability and poor oral bioavailability of peptide drugs, the SUSTech-Shenzhen team engineered the Type VI secretion systems of Vibrio cholerae and Pseudomonas aeruginosa to deliver drug fusion proteins into cells. It is hoped that stable, long-acting and autonomously regulated drug control can be achieved through this new drug delivery system in the future. [Wiki](https://2022.igem.wiki/sustech-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/71294d1d-9f84-4c49-898a-9aba12cd0fd7/237ea643-535d-4f2f-9ce8-a6b42b30c43a-master.m3u8https://video.igem.org/videos/embed/eYtkArL5gF6tVCdLUDmquP1120232023-09-14T13:13:50.526ZYES2023 Project PromotionsNOhttps://video.igem.org/w/b9DwwFfq4XUWZ5JhBiFN7Ahttps://video.igem.org/lazy-static/thumbnails/b7a62876-0005-4aef-b5db-68276d9550b5.jpgRUBochum: Breaking -Lactams - Biosensors for Antibiotics (2023) - Project Promotion [English]**Title:** Breaking -Lactams - Biosensors for Antibiotics **Description:** The improper and overuse of antibiotics can lead to antibiotic resistant bacteria. According to the WHO these bacteria are a global health threat. Because a lot of preventative antibiotics are used in livestock farming our goal is to implement an antibiotic biosensor for the wastewater of livestock farms. Through this we hope to reduce the assurance of antibiotic resistant bacteria in wastewater. [Wiki](https://2022.igem.wiki/rubochum)https://static.igem.org/peertube/streaming-playlists/hls/52307694-5b4b-4f36-b6d4-f087b3c45ffe/8a527607-6574-45f8-88c9-a694ab366c31-master.m3u8https://video.igem.org/videos/embed/b9DwwFfq4XUWZ5JhBiFN7A1200142023-09-14T13:14:54.742ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tkBJKEcB6pZZbmbsjN7BxBhttps://video.igem.org/lazy-static/thumbnails/b3be90d8-9044-4b95-b367-8362c35e8056.jpgBGI-MammothEdu-China: Innovative technology: Plants tell you the secrets of cadm... (2023) - Proj...**Title:** Innovative technology: Plants tell you the secrets of cadmium in soil! **Description:** In this video, we will introduce an innovative technology that utilizes plants to monitor heavy metal cadmium levels in soil in real time. Cadmium has a significant impact on plant growth and development, and there are many inconveniences associated with traditional cadmium detection methods. In this video, we will learn about a method that uses plant luminescence to inform the concentration of cadmium in the soil, thus enabling real-time, convenient and visual monitoring without the need for specialized equipment and technicians, which greatly improves the monitoring efficiency. At the same time, we will also learn how to make plants glow continuously throughout their life cycle by transferring genes from natural luminescent mushrooms to plants, and how to control the luminescent response of plants using a genetic switch to enable rapid detection of cadmium contamination in soil. This innovative technology will revolutionize soil quality monitoring and allow us to better protect our environment and health. Join us to learn more about this exciting technology! [Wiki](https://2022.igem.wiki/bgi-mammothedu-china)https://static.igem.org/peertube/streaming-playlists/hls/dd63e633-f07e-466a-acef-e7bb9ee4ada5/0f31ce21-b981-4410-a64a-76fafad106a8-master.m3u8https://video.igem.org/videos/embed/tkBJKEcB6pZZbmbsjN7BxB1170832023-09-14T13:17:37.949ZYES2023 Project PromotionsNOhttps://video.igem.org/w/cgVf7cRATKAtoxBsnmaABshttps://video.igem.org/lazy-static/thumbnails/1a031fc2-ff83-4f64-81a2-860ccfb061ca.jpgWilliam-and-Mary: Soilution: Moving SynBio from the Petri Dish to the Soil Micro... (2023) - Proj...**Title:** Soilution: Moving SynBio from the Petri Dish to the Soil Microcosm **Description:** While Synthetic Biology has shown great potential in laboratory settings to address global environmental problems, deploying constructs effectively and scalably into the messy soil remains a challenge. We are investigating a number of obstacles, including a lack of fieldable chassis, adversaries native to the soil (such as bacteriophage), and the largely inactive metabolic states of soil microbes. We are doing so both with quantitative data from soil microcosms as well as mathematical modeling. [Wiki](https://2022.igem.wiki/william-and-mary)https://static.igem.org/peertube/streaming-playlists/hls/5b4d7e7e-24d7-4f9c-af49-f6421baad698/8a22659c-ce99-4420-8112-2583376c8738-master.m3u8https://video.igem.org/videos/embed/cgVf7cRATKAtoxBsnmaABs12002132023-09-14T13:20:33.335ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4LDjYockUXV5UeRBYVfQj2https://video.igem.org/lazy-static/thumbnails/247ec124-e60a-4ee8-b0b0-4fc119824ef4.jpgLeiden: Sustainable and cost-efficient bioplastic production using a non-model o... (2023) - Proj...**Title:** Sustainable and cost-efficient bioplastic production using a non-model organism **Description:** Microplastic is everywhere and plastic used in agriculture is partly responsible for this. We want to change this. The iGEM Leiden 2023 team PHAse Out aims to produce PHA (polyhydroxyalkanoates), a form of bioplastic, in a sustainable and cost-efficient way using methanol as a feedstock. To achieve this, we are genetically engineering the non-model organism Methylobacterium extorquens. Let’s PHAse Out plastics together! [Wiki](https://2022.igem.wiki/leiden)https://static.igem.org/peertube/streaming-playlists/hls/1e87253f-e1e6-4c9c-ae95-6780f3e59295/346d67fa-0b5c-4495-8a74-778648a99cca-master.m3u8https://video.igem.org/videos/embed/4LDjYockUXV5UeRBYVfQj212003692023-09-14T13:21:05.612ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bUwRKXKTVocAZrAkBQTtFbhttps://video.igem.org/lazy-static/thumbnails/a8dfc508-a888-41f9-a511-8d02951580ff.jpgSquirrel-CHN: Treatment of phenylketonuria through microecological therapy (2023) - Project Promo...**Title:** Treatment of phenylketonuria through microecological therapy **Description:** Phenylketonuria (PKU) is a genetic disorder caused by the inability to metabolize phenylalanine, which can lead to neurotoxicity. Current treatments mainly rely on prenatal screening and strict protein restriction diets, both of which have significant limitations. To this end, our team successfully developed an engineered strain based on the probiotic Escherichia coli Nissle1917. This strain can effectively convert phenylalanine into trans-cinnamic acid in vitro. Trans-cinnamic acid can be metabolized in the intestine to generate hippuric acid and excreted from the body. This innovative approach provides PKU patients with a healthy, non-invasive treatment option that greatly reduces dependence on a specific diet. [Wiki](https://2022.igem.wiki/squirrel-chn)https://static.igem.org/peertube/streaming-playlists/hls/58511459-b50d-4aa2-9a81-ec956ef9a844/2c96fae8-e157-4bf9-8c7f-d289756e6446-master.m3u8https://video.igem.org/videos/embed/bUwRKXKTVocAZrAkBQTtFb1200292023-09-14T13:23:38.634ZYES2023 Project PromotionsNOhttps://video.igem.org/w/adMY2WMAYocHx4iizojh63https://video.igem.org/lazy-static/thumbnails/45c9c412-06e1-4618-8600-0111ef4189c3.jpgASIJ-Tokyo: ESPHA (2023) - Project Promotion [English]**Title:** ESPHA **Description:** Widespread use of sustainably produced and biodegradable plastics is currently limited by its high production cost compared to petroleum-based plastics. Project ESPHA attempts to Explore the Secretion of PHAs, a family of polyesters naturally produced by numerous microorganisms, in order to reduce the downstream processing costs of PHA production. [Wiki](https://2022.igem.wiki/asij-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/4aab8033-f219-40fd-b8a4-01f0bfb514f4/c295eefc-d974-4db9-8103-0089e34481aa-master.m3u8https://video.igem.org/videos/embed/adMY2WMAYocHx4iizojh631200282023-09-14T13:24:09.745ZYES2023 Project PromotionsNOhttps://video.igem.org/w/86bfGopGgRpARMcadCQwtvhttps://video.igem.org/lazy-static/thumbnails/c5e6e3bf-4409-4cea-a5c5-158520215442.jpgKULeuven: KU Leuven - How your waste cooking oil can become a valuable pharmaceu... (2023) - Proj...**Title:** KU Leuven - How your waste cooking oil can become a valuable pharmaceutical precursor **Description:** YarroWCO is a project that solves two problems at once! Waste cooking oil (WCO) has become an issue, with 1,100,000 tons of WCO produced in the EU in 2019 alone. Furthermore, steroidal drugs that compose large pharmaceutical markets are complex and difficult to synthesize. To tackle these two issues, YarroWCO is engineering Yarrowia lipolytica that can transform lipids present in waste cooking oil into campesterol, with the help of bioemulsifiers. [Wiki](https://2022.igem.wiki/kuleuven)https://static.igem.org/peertube/streaming-playlists/hls/39690222-c0f3-445f-80f7-be1ae36ff473/754ee4dc-40ec-48e3-b219-9961b0cff250-master.m3u8https://video.igem.org/videos/embed/86bfGopGgRpARMcadCQwtv1200492023-09-14T13:24:42.418ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gczh7UY9wEH6ef4qCTVmryhttps://video.igem.org/lazy-static/thumbnails/3d20e833-2dc8-4b01-96ec-731b79bb9e0d.jpgHUBU-WUHAN-CHINA: Insecticide Pro Max (2023) - Project Promotion [English]**Title:** Insecticide Pro Max **Description:** This video introduces the team members' approach to biological control, aiming to protect willow and poplar trees on Earth. They propose ideas for the prevention and control of willow leaf beetles. The team envisions combining insect resistant Pseudomonas with RNAi technology, hoping to achieve better insect resistance effects.We are HUBU-WUHAN-CHINA, we are committed to exploring ways to combat the willow leaf beetle. [Wiki](https://2022.igem.wiki/hubu-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/7b16c505-7c1f-4499-986f-7ddf68742d12/56a63c0a-27cf-4dd8-976f-69838237c0c8-master.m3u8https://video.igem.org/videos/embed/gczh7UY9wEH6ef4qCTVmry1200612023-09-14T13:23:04.624ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nY2f3KKQ1VJPkpheo6eKmehttps://video.igem.org/lazy-static/thumbnails/d559490e-0805-4152-ade2-4b2c2088c295.jpgDTU-Denmark: FluoroLoop - An Aptamer-Based PFAS Detection Method (2023) - Project Promotion [Engl...**Title:** FluoroLoop - An Aptamer-Based PFAS Detection Method **Description:** Our project centers around the class of forever chemicals known as PFAS. These contaminants accumulate in the environment and our bodies with highly detrimental effects. While efforts are made to identify the extent of the contamination, detection methods are expensive and time-consuming. Our goal is to create a quick, cheap, and easy-to-use PFAS biosensor to aid detection. To do so, we combine a PFOA-recognizing aptamer and a tRNA-mimicking structure, which together regulate a fluorescent gene. [Wiki](https://2022.igem.wiki/dtu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/b1e25419-5519-446d-b759-7b1a29a384f9/cdfd43f5-78d6-454a-b9bd-fd841df5275a-master.m3u8https://video.igem.org/videos/embed/nY2f3KKQ1VJPkpheo6eKme12002552023-09-14T13:28:48.751ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tfX7TJ3ndCmU2PuiRBCFnThttps://video.igem.org/lazy-static/thumbnails/546079eb-ee7a-4799-818b-a81012d01962.jpgTU-Dresden: DRIP - Diatom-based Remediation using Immobilized Proteins (2023) - Project Promotion...**Title:** DRIP - Diatom-based Remediation using Immobilized Proteins **Description:** We are engineering the diatom Thalassiosira pseudonana to become a biological remediation platform. We use a method, coined LiDSI, to introduce our proteins of interest into the biosilica shell of the diatom. Our proteins of interest are laccases and PETases, which are able to degrade micropollutants and microplastics. [Wiki](https://2022.igem.wiki/tu-dresden)https://static.igem.org/peertube/streaming-playlists/hls/dcbd1ff1-b7cf-4cea-b9b6-0106be1fc921/a3eb2202-59ac-4f35-82df-c6c85c9ce7cf-master.m3u8https://video.igem.org/videos/embed/tfX7TJ3ndCmU2PuiRBCFnT12002402023-09-14T13:33:06.311ZYES2023 Project PromotionsNOhttps://video.igem.org/w/uJQJTfF714eNLBFHBUXySihttps://video.igem.org/lazy-static/thumbnails/ba862d49-76da-4cf1-9f4d-3ba2d7fecd30.jpgTU-Dresden: DRIP - Diatom-based Remediation using Immobilized Proteins (2023) - Project Promotion...**Title:** DRIP - Diatom-based Remediation using Immobilized Proteins **Description:** We are engineering the diatom Thalassiosira pseudonana to become a biological remediation platform. We use a method, coined LiDSI, to introduce our proteins of interest into the biosilica shell of the diatom. Our proteins of interest are laccases and PETases, which are able to degrade micropollutants and microplastics. [Wiki](https://2022.igem.wiki/tu-dresden)https://static.igem.org/peertube/streaming-playlists/hls/e8bb2853-9ea0-401c-b306-b709c1d0af5d/85d204db-7d1c-4d37-8cf4-497b9230efd5-master.m3u8https://video.igem.org/videos/embed/uJQJTfF714eNLBFHBUXySi120072023-09-14T13:33:43.486ZYES2023 Project PromotionsNOhttps://video.igem.org/w/vL5t3Tu5R5Quj7WVX5rTAohttps://video.igem.org/lazy-static/thumbnails/62176460-4462-4f29-b939-d1e955db15e9.jpgBNU-China: Silinker: A biotoolbox for efficient modification of multiple biomole... (2023) - Proj...**Title:** Silinker: A biotoolbox for efficient modification of multiple biomolecules on mesoporous silica surfaces **Description:** Nanotechnology is experiencing rapid growth in both research and industrial communities. This provides new insights into tissue engineering, advanced pharmaceutics, and therapeutic application. Nanomaterials and nanostructures have unique physical and chemical properties, with advantages such as customizability and specificity. These advantages have driven the explosive development of nanomedicine over the last two decades. The surface modification of nano silica that provides it with a diverse range of potent biological functions. We have noted that the current chemical methods used for the attachment of different functional proteins are tedious, difficult to maintain the protein activity, and require the functional protein linkage-specific design. To facilitate protein surface modification on silica nanoparticles, we aim to design a unified and standardized protein binding mode. It is a novel type of SiO2 protein modification linker family called Silinker, which can modularly bind the desired functional proteins. [Wiki](https://2022.igem.wiki/bnu-china)https://static.igem.org/peertube/streaming-playlists/hls/f1007fe0-a38a-40a1-9a7f-4de04e75d9be/d9b28358-c842-468d-85df-c9ed9c445103-master.m3u8https://video.igem.org/videos/embed/vL5t3Tu5R5Quj7WVX5rTAo1150982023-09-14T13:44:34.687ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bTinbdk7SJPjizNR7UxBQBhttps://video.igem.org/lazy-static/thumbnails/43f29f70-6b2c-466d-b505-5b872fbb70ee.jpgThe-Kings-School-AU: Solutions for our Soil — Engineering Nitrogen Fixing Bacter... (2023) - Proj...**Title:** Solutions for our Soil — Engineering Nitrogen Fixing Bacteria with Oxygen Sensing Capabilities **Description:** SOILutions is a team of 21 students from schools across Sydney, Australia, and we are developing a pioneering solution to global soil health. Engineering e-coli to produce nitrogenase has been done before, but its continuous nature was too much of a burden on the organism. Our project aims to introduce an oxygen-sensing feature that allows the bacteria to activate only under low oxygen conditions, increasing the longevity and usability of these engineered microorganisms. With the potential to increase ammonia production in soil, this synthetic biology solution may be the last piece of the puzzle for farms across the world. [Wiki](https://2022.igem.wiki/the-kings-school-au)https://static.igem.org/peertube/streaming-playlists/hls/5825053f-391b-4051-adcd-136726f01b07/5d247712-3392-432e-b9ef-57a95cf09018-master.m3u8https://video.igem.org/videos/embed/bTinbdk7SJPjizNR7UxBQB1200262023-09-14T13:45:39.989ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fubSqYWo6Srx9pVavNPfughttps://video.igem.org/lazy-static/thumbnails/e8cfd00a-ba46-4496-9aba-7ce475c435ad.jpgBielefeld-CeBiTec: ASTERISK - Our Solution for a World Beyond Cancer (2023) - Project Promotion [...**Title:** ASTERISK - Our Solution for a World Beyond Cancer **Description:** In gliomas, personalized approaches with high success rates and low side effects are needed more than ever. We are iGEM Bielefeld and proud to present ASTERISK - Advanced Sequencing of Tumor Markers Enabling RNA-based Intraoperative Sensing and Killing. Our goal is to perform intraoperative diagnosis and therapy. We use our mRNA sensing and kill switch, which sensitively targets cancer cells and triggers the translation of proteins with cytotoxic effects. Wiki [Wiki](https://2022.igem.wiki/bielefeld-cebitec)https://static.igem.org/peertube/streaming-playlists/hls/754f7722-1c46-4486-8fb2-f96a8bcd4777/ea26a6a8-44d0-43f2-84cf-6a75937c16f6-master.m3u8https://video.igem.org/videos/embed/fubSqYWo6Srx9pVavNPfug1200842023-09-14T13:46:19.676ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4uAK1ppKvB9rE4BeBZVpE6https://video.igem.org/lazy-static/thumbnails/387a1844-1afc-4f5b-94cf-d19da54cbea4.jpgHS-China: COPD Chronicles: Better Detection for A Better Future (2023) - Project Promotion [English]**Title:** COPD Chronicles: Better Detection for A Better Future **Description:** We aim to develop a more efficient, accurate, and cost-effective detection method for the disease COPD, through use of a RCA and Cas12a based one-pot assay, thus contributing to solving this problem that impacts millions. [Wiki](https://2022.igem.wiki/hs-china)https://static.igem.org/peertube/streaming-playlists/hls/1c49a6d9-1022-4510-9790-04803a4ef255/5994909e-82d7-4200-b0fb-1c12d7b8066c-master.m3u8https://video.igem.org/videos/embed/4uAK1ppKvB9rE4BeBZVpE61210492023-09-14T13:46:46.712ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nygq72N15Tz3i8fw4dGRnphttps://video.igem.org/lazy-static/thumbnails/787ccdcd-d59f-4c6b-ad38-7b1df9b0cfcd.jpgUCAS-China: Welcome to the NOX Kingdom! (Neo-quOrum sensing-based Xpression bios... (2023) - Proj...**Title:** Welcome to the NOX Kingdom! (Neo-quOrum sensing-based Xpression biosensor platform) **Description:** Trace substance detection remains challenging, especially when it comes to food safety and medical care in daily practice. This year, we introduce NOX (the Neo-quOrum sensing-based Xpression biosensor platform) to solve this problem by constructing a modular biosensor, combining chimeric receptors and orthogonal quorum sensing. The whole device is portable and user-friendly, with luminescence detectable by the naked eyes. [Wiki](https://2022.igem.wiki/ucas-china)https://static.igem.org/peertube/streaming-playlists/hls/ae913672-fd97-43f1-8d13-abf66a85cc1d/116b1fbf-625a-4a4f-98a8-f048c416fadb-master.m3u8https://video.igem.org/videos/embed/nygq72N15Tz3i8fw4dGRnp12003132023-09-14T13:49:20.426ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bxPtsYd4b3BCPNNHcsBv9Fhttps://video.igem.org/lazy-static/thumbnails/279bada8-1183-4a7d-aecf-3b60e59080b7.jpgAlma: Unraveling a Poisoned River (2023) - Project Promotion [English]**Title:** Unraveling a Poisoned River **Description:** Contaminated chemical waste is invading waterways, polluting soil beds, and devastating ecosystems from one prominent source–the Pine River–due to the destructive toxin DDT. Alma College iGEM is providing a cost-effective fluorescent biosensor that is able to detect levels of DDT pollution in affected soil samples in less than six hours. This progressive synthetic biological engineering approach delivers a higher quality of life to all impacted by chemical waste pollution. [Wiki](https://2022.igem.wiki/alma)https://static.igem.org/peertube/streaming-playlists/hls/556cb338-1b07-4229-b8df-87b3d8595343/3547ef14-8fc5-413e-901d-a069eb3ceefb-master.m3u8https://video.igem.org/videos/embed/bxPtsYd4b3BCPNNHcsBv9F1040442023-09-14T13:51:02.709ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nesXXi2JK1ZKMQU5CdXXmChttps://video.igem.org/lazy-static/thumbnails/8a6d53ed-8538-42a8-a3c7-0b93c15f29bc.jpgUSP-Brazil: Strep-by-Strep (2023) - Project Promotion [English]**Title:** Strep-by-Strep **Description:** In the current project "Strep by Strep," we are exploring the potential of Streptomyces, bacteria crucial in antibiotic production. While they are responsible for nearly half of all antibiotics used today, many of their genes remain hidden in their DNA. Our goal is to unravel these secrets by activating known genes and identifying new ones of interest. Working with Streptomyces olindensis, a Brazilian bacterium isolated in Olinda in the 1960s, we aim to produce Cosmomicin D on a large scale, a promising bactericidal and antitumoral drug. [Wiki](https://2022.igem.wiki/usp-brazil)https://static.igem.org/peertube/streaming-playlists/hls/abf132ce-9084-4512-8e5e-188b72fb6e40/6d1bb6e5-42d7-4e50-97e0-6646fc53217a-master.m3u8https://video.igem.org/videos/embed/nesXXi2JK1ZKMQU5CdXXmC1200362023-09-14T13:56:44.269ZYES2023 Project PromotionsNOhttps://video.igem.org/w/wnKDS2BpUGzuF3t1oTC7MWhttps://video.igem.org/lazy-static/thumbnails/af1317ee-6aec-4a36-8c34-6f49cf212926.jpgBarcelona-UB: AlgaGenix (2023) - Project Promotion [English]**Title:** AlgaGenix **Description:** Water pollution due to nitrates in Catalonia is taking a major toll in the water availability of the region. Our project, AlgaGenix, is genetically enhancing the model microalgae Chlamydomonas reinhardtii so it absorbs more nitrates and transforms them into cytokinins, an organic phytohormone. We aim at recirculating the excess of fertiliser applied to fields as well as filtering polluted waters. [Wiki](https://2022.igem.wiki/barcelona-ub)https://static.igem.org/peertube/streaming-playlists/hls/f5fbae53-ba5e-483c-b44b-d98f38fbc850/40571912-0ba5-4dfe-8452-c4e1c2196076-master.m3u8https://video.igem.org/videos/embed/wnKDS2BpUGzuF3t1oTC7MW12001882023-09-14T13:58:46.821ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6aZgEg3s34WmBvt7c4TJibhttps://video.igem.org/lazy-static/thumbnails/0e1a1a10-5898-4ddd-a31e-841402f3a690.jpgDuke: ICARUS: Intelligent CAR Upregulation System (2023) - Project Promotion [English]**Title:** ICARUS: Intelligent CAR Upregulation System **Description:** No abstract [Wiki](https://2022.igem.wiki/duke)https://static.igem.org/peertube/streaming-playlists/hls/29e2ae5d-ba61-483f-9884-83f8ac5552d4/f23bdbd5-51fe-4d59-a91e-58628e70a1a0-master.m3u8https://video.igem.org/videos/embed/6aZgEg3s34WmBvt7c4TJib1180442023-09-14T14:00:17.803ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bubENEAxXBGjR2VfX49Qc2https://video.igem.org/lazy-static/thumbnails/2a69fafa-b464-43b4-babf-6554b7925fc6.jpgNCSU: Forget Me Not: A comprehensive study of Alzheimer’s disease (2023) - Project Promotion [Eng...**Title:** Forget Me Not: A comprehensive study of Alzheimer’s disease **Description:** Alzheimer’s disease (AD) is a progressive neurodegenerative disease. In this project, the NCSU iGEM team is developing a biotherapeutic to delay the onset of AD. By engineering the bacterium Clostridium butyricum, to secrete butyrate, we achieve neuroprotection by reducing- 1. oxidative stress on the brain, 2. neuronal apoptosis and 3. neuroinflammation. Engineering is accomplished using a two-plasmid induced CRISPR/Cas9 system and will be delivered using C. butyricum spores to the gut. Elevated butyrate enters the bloodstream and crosses the blood brain barrier, through the gut-brain axis. Using quantum computing, we have identified the appropriate time for the therapeutic to be administered and the most suitable metabolic pathway. Recognizing potential concerns regarding genetically engineered organisms, we authored a neuroethical report and designed appropriate biosecurity measures. Through outreach projects, we designed an AD caregiver app and used their feedback to shape our overall project. [Wiki](https://2022.igem.wiki/ncsu)https://static.igem.org/peertube/streaming-playlists/hls/54eac985-6c60-45fa-8a2e-95932b594e0f/7cf75b45-a3c3-45a1-9da6-299a046899b5-master.m3u8https://video.igem.org/videos/embed/bubENEAxXBGjR2VfX49Qc21200442023-09-14T14:01:35.457ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hVDDLUgufqt4LHfPTieQE7https://video.igem.org/lazy-static/thumbnails/3066be57-4acb-4f0b-89ee-21ffd7485d4f.jpgEdinburgh: CynergisED (2023) - Project Promotion [English]**Title:** CynergisED **Description:** Introducing CynergisED! We’re mitigating the environmental effects of solar panels by designing new panels that run on cyanobacteria. Silicon, the key component of solar panels, produces carbon dioxide during production, and makes panels difficult to recycle. Additionally, solar farm construction can disrupt pre existing ecosystems. Thus, our cyanobacteria can be grown in labs and overexpress histidine and lysine, mimicking pollen, and thus allowing dead cells to be recycled as pollen. [Wiki](https://2022.igem.wiki/edinburgh)https://static.igem.org/peertube/streaming-playlists/hls/890fd77f-db23-4ffd-b7fd-80b64be85e1a/9ff5771c-c569-41aa-bb60-f6a4aa28af85-master.m3u8https://video.igem.org/videos/embed/hVDDLUgufqt4LHfPTieQE71200322023-09-14T14:02:09.161ZYES2023 Project PromotionsNOhttps://video.igem.org/w/o12mDZGsCikdcR9PDzYQCKhttps://video.igem.org/lazy-static/thumbnails/8d3629de-0965-43c6-aed9-bb88c829bcce.jpgUFlorida: Organoid Production and Sepsis (2023) - Project Promotion [English]**Title:** Organoid Production and Sepsis **Description:** No abstract [Wiki](https://2022.igem.wiki/uflorida)https://static.igem.org/peertube/streaming-playlists/hls/b229e2e1-ea91-43d1-ab74-76aa126e67c3/21779a51-49b5-4618-921b-3afd58ce16a3-master.m3u8https://video.igem.org/videos/embed/o12mDZGsCikdcR9PDzYQCK1130182023-09-14T14:07:19.154ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8XTRsMHRZvpoewqVNEaNYnhttps://video.igem.org/lazy-static/thumbnails/5e529d2f-fc21-424a-a134-65ab7ba5ea21.jpgMontpellier: Detecting Viruses in Mosquitoes : The SHERLOCK Approach (2023) - Project Promotion [...**Title:** Detecting Viruses in Mosquitoes : The SHERLOCK Approach **Description:** We are the Aedes’n seek team, and we are trying our best to save you from future pandemics. How would you ask? By combining the SHERLOCK technology, and a paper based test, which let us detect pathogens presence in mosquitoes, known to be disease vectors and currently colonizing France. Our technology currently focus on West Nile virus, and could be applied to other viruses too. [Wiki](https://2022.igem.wiki/montpellier)https://static.igem.org/peertube/streaming-playlists/hls/407dd558-e4a6-446d-9489-779b25e95f05/b3a47f8a-5665-4b26-aeaf-93d06da3bb6b-master.m3u8https://video.igem.org/videos/embed/8XTRsMHRZvpoewqVNEaNYn1200272023-09-14T14:07:55.991ZYES2023 Project PromotionsNOhttps://video.igem.org/w/5yi6pTc9ndk4nGKTdEkGPDhttps://video.igem.org/lazy-static/thumbnails/fb7ba08e-b9fb-4430-a3e3-a05091ffe59c.jpgJLU-NBBMS: Salmonella-based Colorectal Cancer Innovative therapy (2023) - Project Promotion [Engl...**Title:** Salmonella-based Colorectal Cancer Innovative therapy **Description:** Treatment measures for colorectal cancer usually include endoscopic resection, radiotherapy, drug therapy, etc., but the treatment of a specific treatment alone is not good. Based on the above background, the JLU-NBBMS team adheres to synthetic biology and tries to use engineering-modified bacteria to treat solid tumors. We plan to treat colorectal cancer using attenuated salmonella carrying small nucleic acid drugs. The attenuated salmonella can take small nucleic acid drugs, accurately target cancer tissue, and quickly enrich them. It can play an anti-cancer role through bacterial tumor-lytic action, small nucleic acid drug-specific killing of cancer cells, and the triple mechanism of stimulating the body's immune response. It can use salmonella itself while integrating targeted therapy and immunotherapy. Killing cancer cells, accurate and effective treatment of colorectal cancer. [Wiki](https://2022.igem.wiki/jlu-nbbms)https://static.igem.org/peertube/streaming-playlists/hls/24e6e3af-ffcc-4083-85b0-700b133c8d83/bfceed83-7672-41b1-b5bb-fcc0d14e22cc-master.m3u8https://video.igem.org/videos/embed/5yi6pTc9ndk4nGKTdEkGPD1190312023-09-14T14:09:09.456ZYES2023 Project PromotionsNOhttps://video.igem.org/w/gGnL3nySkenzP9dddPH6uUhttps://video.igem.org/lazy-static/thumbnails/d3b0854f-6775-4719-ab6b-8e8976e0a23e.jpgKCL-UK: Unlocking a New Era in Cancer Detection: The Gas Vesicle Ultrasound Brea... (2023) - Proj...**Title:** Unlocking a New Era in Cancer Detection: The Gas Vesicle Ultrasound Breakthrough **Description:** Yearly, colorectal cancer results in over 900,000 deaths worldwide. With 60% of new cases in advanced stages, there is a high demand for early detection methods. At King’s College London, we are developing ColoEcho - a novel colorectal cancer diagnostic! Focusing on early detection, our team is engineering a lactate biosensor which produces gas vesicles in the presence of colorectal cancer, which can then be seen with ultrasound molecular imaging. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/7f1c3d88-48bf-4e06-b4d0-7451df707518/b2fef8c6-ac3f-44e8-90ec-e7a5acc69bf6-master.m3u8https://video.igem.org/videos/embed/gGnL3nySkenzP9dddPH6uU1200242023-09-14T14:10:34.119ZYES2023 Project PromotionsNOhttps://video.igem.org/w/w2Eo5rKPj8eCZc6n4E8dUDhttps://video.igem.org/lazy-static/thumbnails/c3fa07d9-6a48-4fd1-a8e6-b7a2cd355c13.jpgKCL-UK: Unlocking a New Era in Cancer Detection: The Gas Vesicle Ultrasound Br... (2023) - Projec...**Title:** Unlocking a New Era in Cancer Detection: The Gas Vesicle Ultrasound Breakthrough **Description:** Yearly, colorectal cancer results in over 900,000 deaths worldwide. With 60% of new cases in advanced stages, there is a high demand for early detection methods. At King’s College London, we are developing ColoEcho - a novel colorectal cancer diagnostic! Focusing on early detection, our team is engineering a lactate biosensor which produces gas vesicles in the presence of colorectal cancer, which can then be seen with ultrasound molecular imaging. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/f32d8e75-179b-4018-b66e-8eebad0266b5/8e565187-a19d-4c17-9eb7-ca09c33cf3f1-master.m3u8https://video.igem.org/videos/embed/w2Eo5rKPj8eCZc6n4E8dUD120002023-09-14T14:12:15.563ZYES2023 Project PromotionsNOhttps://video.igem.org/w/5ooEJwP45ZTKwWmAA8nvcshttps://video.igem.org/lazy-static/thumbnails/11227686-dad6-4344-a305-2d565b5c6f3e.jpgThrace: DEPREGUT (2023) - Project Promotion [English]**Title:** DEPREGUT **Description:** iGEM Thrace 2023 offers a therapeutic solution for depressive disorder. Focusing on the gut-brain axis and the important role gut microbiota play in this bidirectional communication, we developed “DEPREGUT”. We designed a probiotic that will increase the concentration of SCFAs’ in the gut and, therefore, treat depression. At the same time, we developed an application called “DEPRETECT”, that offers an AI-enabled chatbot that can supervise the patient during their treatment. [Wiki](https://2022.igem.wiki/thrace)https://static.igem.org/peertube/streaming-playlists/hls/2384e31a-2345-488a-bc1e-603612e95c24/e96ce125-a5c2-4610-9435-a2020ce4c7ff-master.m3u8https://video.igem.org/videos/embed/5ooEJwP45ZTKwWmAA8nvcs1150252023-09-14T14:27:41.204ZYES2023 Project PromotionsNOhttps://video.igem.org/w/maBarxEjNUmZyj7bpyTAEYhttps://video.igem.org/lazy-static/thumbnails/53991b5b-41b1-4c14-8f6e-59ca18f8cac6.jpgKCL-UK: Unlocking a New Era in Cancer Detection: The Gas Vesicle Ultrasound B... (2023) - Project...**Title:** Unlocking a New Era in Cancer Detection: The Gas Vesicle Ultrasound Breakthrough **Description:** Yearly, colorectal cancer results in over 900,000 deaths worldwide. With 60% of new cases in advanced stages, there is a high demand for early detection methods. At King’s College London, we are developing ColoEcho - a novel colorectal cancer diagnostic! Focusing on early detection, our team is engineering a lactate biosensor which produces gas vesicles in the presence of colorectal cancer, which can then be seen with ultrasound molecular imaging. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/a34e230f-72a8-4eb7-b6f0-6aa0a92a4474/74edb11a-3b36-4c4a-89e0-ed913c89a49b-master.m3u8https://video.igem.org/videos/embed/maBarxEjNUmZyj7bpyTAEY120052023-09-14T14:28:54.502ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eRdsUDvsKeKkKPhCAAXozzhttps://video.igem.org/lazy-static/thumbnails/b19def73-f12b-43ce-8839-3fc79211b62d.jpgKCL-UK: Unlocking a New Era in Cancer Detection: The Gas Vesicle Ultrasound Brea... (2023) - Proj...**Title:** Unlocking a New Era in Cancer Detection: The Gas Vesicle Ultrasound Breakthrough **Description:** Yearly, colorectal cancer results in over 900,000 deaths worldwide. With 60% of new cases in advanced stages, there is a high demand for early detection methods. At King’s College London, we are developing ColoEcho - a novel colorectal cancer diagnostic! Focusing on early detection, our team is engineering a lactate biosensor which produces gas vesicles in the presence of colorectal cancer, which can then be seen with ultrasound molecular imaging. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/7025edb0-accc-41d1-8c4e-0073d8dbacab/def35a19-b4ff-47c1-92f2-a200e7ff50a4-master.m3u8https://video.igem.org/videos/embed/eRdsUDvsKeKkKPhCAAXozz120082023-09-14T14:18:21.400ZYES2023 Project PromotionsNOhttps://video.igem.org/w/xyphjcphTfBpV2xRzJtKTUhttps://video.igem.org/lazy-static/thumbnails/1911ed8c-1dec-4d7d-b540-fe858a21c193.jpgMIT-MAHE: CarbanEl: A novel bioremediation solution (2023) - Project Promotion [English]**Title:** CarbanEl: A novel bioremediation solution **Description:** Our team is focusing on biodegrading triclocarban (TCC), an antimicrobial compound in pharmaceutical and personal care products. Due to its hydrophobicity and chemical stability, it is ineffectively degraded in wastewater treatment plants (WWTPs), resulting in accumulation in the effluent and sludge. Owing to its carcinogenic and hormone disrupting properties, TCC when exposed to the environment as sludge inhibits plant metabolism and harms endocrine functioning in aquatic life. CarbanEl aims to degrade triclocarban into non-toxic byproducts. The aim is to introduce Ochrobactrum TCC-2's TccA gene which can degrade TCC into a chassis which can inherently degrade the toxic chloroaniline byproducts using its natural, existing pathways. We decided to focus our study on P. putida, P. fluoroscens, and A. baylyi, which are all suitable candidates to serve as our chloroaniline-degrading chassis. This will effectively lower the impact of TCC on our environment, locally and globally, in aquaculture, agriculture, and human health. [Wiki](https://2022.igem.wiki/mit-mahe)https://static.igem.org/peertube/streaming-playlists/hls/ff91725a-76ab-4d05-b929-ed21f02b4006/91edf077-be1e-42b0-8921-e5d10e103352-master.m3u8https://video.igem.org/videos/embed/xyphjcphTfBpV2xRzJtKTU1200502023-09-14T14:34:41.007ZYES2023 Project PromotionsNOhttps://video.igem.org/w/v1MkCWc3o8HEucoN6HzdcQhttps://video.igem.org/lazy-static/thumbnails/89f76ad0-c259-421d-8ad6-51008fdb8751.jpgKyoto: Avoideer (2023) - Project Promotion [English]**Title:** Avoideer **Description:** In the battle against agricultural damage from animals, who says we have to give up living in harmony with them? This year, iGEM Kyoto's project focuses on extending E. coli culture lifespans for the long-term emission of deer odorants, along with the development of a device that enables culturing in non-laboratory settings. Join us in taking our project from the flasks to the fields. [Wiki](https://2022.igem.wiki/kyoto)https://static.igem.org/peertube/streaming-playlists/hls/eaf4f647-2ae2-47dd-a1b7-79917cc15cb6/ec085d6c-7335-4464-89c7-b1f322461da2-master.m3u8https://video.igem.org/videos/embed/v1MkCWc3o8HEucoN6HzdcQ12002752023-09-14T14:51:10.559ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6JLJXWCoX4kmrcRNu8QkJzhttps://video.igem.org/lazy-static/thumbnails/72de7fec-e0e0-4241-840b-bf6e27808f18.jpgIISc-Bengaluru: MetraMorpheus : Changing Lives with mRNAs (2023) - Project Promotion [English]**Title:** MetraMorpheus : Changing Lives with mRNAs **Description:** MetraMorpheus is our attempt to treat endometriosis, which affects approximately 247 million women worldwide and causes great pain and bleeding. It develops when the lining of uterus, endometrium, grows beyond it, and gets fixed there. We intend to develop an mRNA-based approach to treat endometriosis. The mRNA will be delivered by LNPs decorated with aptides.. If successful, we would be able to improve the lives of millions of women who have been suffering due to this silent epidemic. [Wiki](https://2022.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/2e76810d-d974-48d5-b023-8a075bf1b2c1/dde1303d-06ee-466b-9fc7-f7a4f7071b91-master.m3u8https://video.igem.org/videos/embed/6JLJXWCoX4kmrcRNu8QkJz1190522023-09-14T14:51:41.433ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nP8bxBbUcC92LtKaUFBwqahttps://video.igem.org/lazy-static/thumbnails/50c6590d-02da-4f12-b86d-9e215983d424.jpgIISER-Pune-India: JetroEco- Fuel to Future (2023) - Project Promotion [English]**Title:** JetroEco- Fuel to Future **Description:** Global meltdown due to climate crisis is the greatest threat to this planet. The need of the hour is to reduce our dependency on fossil fuels and minimize our carbon footprint. The aviation industry is a major contributor to global greenhouse gas emissions, yet little is done to make it more sustainable. iGEM IISER PUNE 2023 team realised this problem and we tried our best to help the environment heal. We aim to engineer the oleaginous yeast- Yarrowia lipolytica to produce hydrocarbons compatible with jet fuel. Jatropha curcas seed oil has been shown to be in accordance with jet fuel standards. However, we realized it’s not cultivated due to low yield and a long growth period. Hence, using synthetic biology, we are trying to produce Jatropha curcas fatty acids and convert them to hydrocarbon in a single step. [Wiki](https://2022.igem.wiki/iiser-pune-india)https://static.igem.org/peertube/streaming-playlists/hls/b0a44b84-ed0f-4187-8408-e337e566f7d9/18a887f0-a1f0-4e54-a8cc-c983e45e1852-master.m3u8https://video.igem.org/videos/embed/nP8bxBbUcC92LtKaUFBwqa12002352023-09-14T14:58:40.214ZYES2023 Project PromotionsNOhttps://video.igem.org/w/s9GGmtqbkussSvAmMuuG2Bhttps://video.igem.org/lazy-static/thumbnails/20357f9a-756c-46e8-9853-adee9a041f56.jpgBAID-China: No title (2023) - Project Promotion [English]**Title:** No title **Description:** In this video, the concept and the danger of microplastic is introduced. The structure and function of our product and some of its features are presented in the video. [Wiki](https://2022.igem.wiki/baid-china)https://static.igem.org/peertube/streaming-playlists/hls/d3c4a28c-d13d-43f1-aede-d31a41b9503d/4581da49-960a-4783-a710-d3b0371e9e47-master.m3u8https://video.igem.org/videos/embed/s9GGmtqbkussSvAmMuuG2B1200502023-09-14T14:42:02.030ZYES2023 Project PromotionsNOhttps://video.igem.org/w/cQ1Ax7M1qFXdMcua6uZasShttps://video.igem.org/lazy-static/thumbnails/a9d2bc97-1a96-4b3d-b7dc-59c3e08565fe.jpgVilnius-Lithuania: Exullose (2023) - Project Promotion [English]**Title:** Exullose **Description:** Cellulose, a compound commonly associated with plants, is naturally synthesized by bacteria of the Komagataeibacter genus. Bacterial cellulose is remarkable for its high purity, making it a desirable polymer for biomedical applications. However, it must be modified to adapt cellulose to perform specific functions. Therefore, with the Exullose project, we aim to develop a copolymer of bacterial cellulose and chitosan – a compound that can be easily modified. [Wiki](https://2022.igem.wiki/vilnius-lithuania)https://static.igem.org/peertube/streaming-playlists/hls/5fc897da-da89-43e3-af2e-c7df9125bc62/6c44c572-4976-4038-9fea-6134d78c878f-master.m3u8https://video.igem.org/videos/embed/cQ1Ax7M1qFXdMcua6uZasS11704222023-09-14T14:42:33.827ZYES2023 Project PromotionsNOhttps://video.igem.org/w/frJ2egbEGZAyupVRaWPWR9https://video.igem.org/lazy-static/thumbnails/5e07b69b-1eaf-416c-bea9-ee99dd6aca10.jpgHarvard: E.coDrop: A Cheap, Membraneless System for Multiplexed Molecule Detection (2023) - Proje...**Title:** E.coDrop: A Cheap, Membraneless System for Multiplexed Molecule Detection **Description:** Simultaneous detection of diverse analytes is critical to many research and clinical applications. Our team is working to develop a cell-free extract system that is both affordable and easy to customize. We have identified a cost-effective method for creating concentrated droplets of cell lysate by first suspending E. coli in polymer and then inducing lysis within. Because E. coli is convenient for gene editing, our E.coDrop platform promises to be widely applicable as a foundational advance. [Wiki](https://2022.igem.wiki/harvard)https://static.igem.org/peertube/streaming-playlists/hls/74f76e95-37d0-4c22-b721-8c251d796fd2/b1025086-8551-408d-b8b7-ecff6921083b-master.m3u8https://video.igem.org/videos/embed/frJ2egbEGZAyupVRaWPWR911901502023-09-14T14:39:52.269ZYES2023 Project PromotionsNOhttps://video.igem.org/w/roLFNUhf8jn9aLBtBotQcZhttps://video.igem.org/lazy-static/thumbnails/10f319e4-39c1-4d6c-b205-18d6035f5973.jpgNYCU-Formosa: CoPlat (2023) - Project Promotion [English]**Title:** CoPlat **Description:** Since conventional adhesives nowadays contain chemicals that are harmful to both the environment and the human body, we, NYCU-Formosa, tackle this problem by designing CoPlat through biomanufacturing. CoPlat is a modularized platform using CsgA and adhesive proteins. With CoPlat, our team hopes it can hold various functional proteins and apply it to different places. [Wiki](https://2022.igem.wiki/nycu-formosa)https://static.igem.org/peertube/streaming-playlists/hls/cda25e4e-7b92-4de0-9c13-c6e4bff8c62f/d9eb5718-bd4c-4590-aa8c-acebc8d2bfa4-master.m3u8https://video.igem.org/videos/embed/roLFNUhf8jn9aLBtBotQcZ1160182023-09-14T14:48:40.380ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eW6vx3Qmb7aL5xfMnPmzpRhttps://video.igem.org/lazy-static/thumbnails/0bd92c76-3248-4e96-a207-b08f49c0ed5a.jpgISPanama: Robigalia (2023) - Project Promotion [English]**Title:** Robigalia **Description:** The project aims to detect the pathogenic fungus Fusarium oxysporum, which affects banana crops, using modified Rhizobium leguminosarum. The detection signal will be propagated using the quorum sensing of R. leguminosarum to allow a hardware device to identify the signal and alert farmers on site of the infection. [Wiki](https://2022.igem.wiki/ispanama)https://static.igem.org/peertube/streaming-playlists/hls/70d45c80-fecb-4aa8-996a-1ac5553a197b/0802ad63-e073-45b9-a352-42fe559514aa-master.m3u8https://video.igem.org/videos/embed/eW6vx3Qmb7aL5xfMnPmzpR920322023-09-14T14:49:12.967ZYES2023 Project PromotionsNOhttps://video.igem.org/w/uwtFBjY9U2DixBtKdhaEaxhttps://video.igem.org/lazy-static/thumbnails/a9a09dc5-f8c5-442c-a288-040a06caf0fc.jpgPrinceton: Stick And Secrete: Exploring Bacterial Adhesion For Bacteriotherapy E... (2023) - Proj...**Title:** Stick And Secrete: Exploring Bacterial Adhesion For Bacteriotherapy Efficacy **Description:** The Princeton iGEM team is proud to introduce our innovative "stick and secrete" model of interkingdom communication. By enabling bacterial cells to communicate with mammalian cells, our modular system opens doors to a wide range of possibilities in the realm of bacteriotherapy. From the potential to promote immune responses to accelerated wound healing, our approach is a foundational tool and cost-effective tool for the future of interkingdom communication innovations. [Wiki](https://2022.igem.wiki/princeton)https://static.igem.org/peertube/streaming-playlists/hls/e701417a-f495-4e51-8673-1202fd0782a9/9af340a0-fe9e-4f5e-847a-c56408ff9098-master.m3u8https://video.igem.org/videos/embed/uwtFBjY9U2DixBtKdhaEax1190812023-09-14T15:07:48.099ZYES2023 Project PromotionsNOhttps://video.igem.org/w/g9PodnEDtFCrt6RjdJGCnkhttps://video.igem.org/lazy-static/thumbnails/f43b98d9-d044-47aa-94a7-5e7a11a3e4e7.jpgMunichBioinformatics: SEPiA - Polypharmacy Predictions (2023) - Project Promotion [English]**Title:** SEPiA - Polypharmacy Predictions **Description:** Polypharmacy is the simultaneous use of multiple (generally defined as more than 5) medications by a patient. While often necessary, in some cases, polypharmacy is associated with various risks, such as adverse drug interactions, increased side effects, medication non-adherence, and a decline in the patient's quality of life. We mitigate this problem by leveraging state-of-the-art machine-learning techniques to predict interactions between two or more drugs, anticipating side effects arising from polypharmacy. Sources [1] https://www.cdc.gov/nchs/data/hus/2019/039-508.pdf [2] https://www.cdc.gov/pcd/issues/2022/22_0062.htm [3] https://bmcgeriatr.biomedcentral.com/articles/10.1186/s12877-022-03279-x [4] https://www.nature.com/articles/s41598-020-75888-8 [5] https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8841335/ [6] https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3633380/ [7] https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3864987/ [8] https://pubmed.ncbi.nlm.nih.gov/11297331/ Credits Animations/ Visuals: Finn Lueth Voice over: Michael from ll Eleven Labs Stock Footage/ Assets: Pixabay, Pexels, JPScott1 (Lightning Bolt) Software: FinalCutProX, Spline, Pixelmator Pro Music: Pixabay [Wiki](https://2022.igem.wiki/munichbioinformatics)https://static.igem.org/peertube/streaming-playlists/hls/7ab43b19-e857-4f31-8f6f-163022746645/a81cbc16-be44-4e2e-a2c1-b6272da2fb31-master.m3u8https://video.igem.org/videos/embed/g9PodnEDtFCrt6RjdJGCnk12001432023-09-14T14:48:12.210ZYES2023 Project PromotionsNOhttps://video.igem.org/w/xzqbk8qFW1FxFKqNTnRZ8Ahttps://video.igem.org/lazy-static/thumbnails/b84758ae-8f22-4327-b272-9d00c6bfe571.jpgBUCT-China: POMELO--Polymerase-enabled Molecular Computing (2023) - Project Promotion [English]**Title:** POMELO--Polymerase-enabled Molecular Computing **Description:** This year, the BUCT-China team mainly designed and developed DNA molecular probes that can perform weighted and summation calculations based on polymerase mediated chain displacement reactions, and then formed them into artificial biochemical circuits with neural network structure, which can perform weighted summation on multidimensional biomarker input signals. Thus, more intuitive and low-dimensional judgmental results can be produced for in vitro precise diagnosis. [Wiki](https://2022.igem.wiki/buct-china)https://static.igem.org/peertube/streaming-playlists/hls/ffb5be3f-48a4-46ee-a9b8-6741ec01a214/067bf967-95d6-4b7f-9938-f04a9fe6adf7-master.m3u8https://video.igem.org/videos/embed/xzqbk8qFW1FxFKqNTnRZ8A12001172023-09-14T15:01:36.297ZYES2023 Project PromotionsNOhttps://video.igem.org/w/aYzsJCDbNPsXyzRHNmFnavhttps://video.igem.org/lazy-static/thumbnails/bd18281b-4707-4ee1-bdb1-02c5d02801c2.jpgZJFH-Nanjing: Cell Factory of Sugar Substitute (2023) - Project Promotion [English]**Title:** Cell Factory of Sugar Substitute **Description:** Many people prefer to choosing sugar substitute while losing weight. However, the production of natural sugar substitutes (e.g., plant extraction method and chemical synthesis) has some limitations. Therefore, We aim to produce xylitol by whole cell transformation using Escherichia coli BL21 (DE3), and realise the de novo synthesis of erythritol by Yarrowia lipolytica. [Wiki](https://2022.igem.wiki/zjfh-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/50c88525-6c10-42c9-a30f-88707ac919f3/30307886-b486-4446-aeab-791fdcc85f18-master.m3u8https://video.igem.org/videos/embed/aYzsJCDbNPsXyzRHNmFnav1170572023-09-14T14:59:02.807ZYES2023 Project PromotionsNOhttps://video.igem.org/w/r8AoMzrsD8vA6cKcgCZ156https://video.igem.org/lazy-static/thumbnails/3d6bfcbe-85c0-4a83-86e8-bde3a219ab4e.jpgFudan: B.HOME — Biofilm Harnessing for Offworld Mankind Establishment (2023) - Project Promotion ...**Title:** B.HOME — Biofilm Harnessing for Offworld Mankind Establishment **Description:** As Earth grapples with escalating ecological and demographic crises, the notion of establishing life on other planets rises as a pressing, real-world imperative. Terrestrial planets, such as Mars, can serve as a destination for space migration. However, before settlement, we need to reshape "the second home" to make it hospitable. Martian surface is predominantly covered in barren rocks. A sustainable ecosystem, then, must begin with the transformation of Martian soil. Inspired by Earth's ecological architects, lichens, our project Biofilm Harnessing for Offworld Mankind Establishment (B-HOME), aspires to transmute Martian rocks into fertile soil. Through modular design, we construct an ecological biofilm capable of autotrophic survival, rock weathering, extreme tolerance, and poly-cistron expression efficiency, marking a bold stride toward a viable human habitat on terrestrial planets. [Wiki](https://2022.igem.wiki/fudan)https://static.igem.org/peertube/streaming-playlists/hls/cb83de45-1af6-40f9-bb2a-29754852a3b5/a9774832-972b-4b91-8c02-08c0aa9932e7-master.m3u8https://video.igem.org/videos/embed/r8AoMzrsD8vA6cKcgCZ15611905772023-09-14T15:05:30.443ZYES2023 Project PromotionsNOhttps://video.igem.org/w/e3kH5FvLiFBmVzgtSR3uRbhttps://video.igem.org/lazy-static/thumbnails/c4db5e34-e126-4e8c-a31a-446c82418dc2.jpgJilin-China: The brightest star in the night sky (2023) - Project Promotion [English]**Title:** The brightest star in the night sky **Description:** A dream of remembrance, an idea of reluctance, and an effort to save. This time, we will confront melanoma to protect our loved ones from its darkness and become the brightest star in the vast night. [Wiki](https://2022.igem.wiki/jilin-china)https://static.igem.org/peertube/streaming-playlists/hls/699a6f8f-89a7-4934-a0bd-0e754b8de9f4/65d94ccc-aa95-4c7e-83b7-be06d2cbd8ef-master.m3u8https://video.igem.org/videos/embed/e3kH5FvLiFBmVzgtSR3uRb1200642023-09-14T15:12:35.869ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2aZhZbeMGrZmsSVXhhVyXxhttps://video.igem.org/lazy-static/thumbnails/3117f05c-27a8-4596-82a4-265f83e6200f.jpgSJTU-BioX-Shanghai: The MONCKIE Kings: Heavy Metal Ion Remover (2023) - Project Promotion [English]**Title:** The MONCKIE Kings: Heavy Metal Ion Remover **Description:** For iGEM 2023, SJTU-BioX-Shanghai is using engineered outer membrane vesicles (OMVs) to remove heavy metal ions from water. We are displaying heavy metal binding proteins as well as cross-linking modules on the surface of the OMVs. The video demonstrates the pollution problem we are solving, the overall design of our MONCKIE(Metal iON Cleaning and KnItting E. coli) Kings as well as the possible applications. [Wiki](https://2022.igem.wiki/sjtu-biox-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/097e23fc-4e96-4f04-88fe-cafff45f089d/1f10405a-03cd-4f04-b96e-55e20eb3fc4d-master.m3u8https://video.igem.org/videos/embed/2aZhZbeMGrZmsSVXhhVyXx1200472023-09-14T15:10:58.133ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jjjVqj3xMTGJzMsvqVdD2Rhttps://video.igem.org/lazy-static/thumbnails/65087afc-1065-4eed-89c8-e901864ac3e3.jpgNTHU-Taiwan: NanoCircDX (2023) - Project Promotion [English]**Title:** NanoCircDX **Description:** Colorectal cancer is the third most prevalent cancer worldwide. Researchers have suggested the importance of early detection, which helps reduce mortality. Hence, our goal is to design an early-stage colorectal cancer detection system, NanoCircDX. The core of NanoCircDX is the biomarker, circRNA. We amplify circRNA using two isothermal amplification techniques, RT-RPA and RCA. Then, NanoCircDX will provide a YES or NO result indicated by gold nanoparticles colorimetric assay or PCRD. [Wiki](https://2022.igem.wiki/nthu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/94538b52-d4b9-4b6d-814a-37e751c1610f/54a7c8fa-8613-4c04-be94-0bc3c9151174-master.m3u8https://video.igem.org/videos/embed/jjjVqj3xMTGJzMsvqVdD2R1150462023-09-14T15:38:06.145ZYES2023 Project PromotionsNOhttps://video.igem.org/w/3Kj2DpVQz9hYJtRbp9DnBXhttps://video.igem.org/lazy-static/thumbnails/82d012af-30cc-4fe5-9021-66e5f610cb59.jpgBUCT: Renal angel (2023) - Project Promotion [English]**Title:** Renal angel **Description:** Chronic kidney disease (CKD) is one of the chronic metabolic diseases which has a rapidly growing incidence rate all over the world. As the disease progresses renal function will be impaired, metabolic wastes which are Difficult to clear, products in the blood, especially creatinine and urea, Instead, they seep into the gastrointestinal tract, disrupting the gut microenvironment. The current main treatment like medication control, dialysis, and surgery have drawbacks. BUCT has proposed the colonization of engineered bacteria in the gastrointestinal tract as an adjunct to renal organ function, purifying creatinine and urea in the gut to peoduce Sarcosine and poly glutamic acid , and they will be excreted through the intestinal tract, ultimately achieving the goal of reducing toxin levels in the blood. [Wiki](https://2022.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/163e5eab-6e38-4454-be52-a3d2302d9dc1/537b5933-bc1b-4d6f-a815-8aa6f986d90d-master.m3u8https://video.igem.org/videos/embed/3Kj2DpVQz9hYJtRbp9DnBX1200832023-09-14T15:43:52.131ZYES2023 Project PromotionsNOhttps://video.igem.org/w/54Hi6UMCEQ8RwxgkM8k7CFhttps://video.igem.org/lazy-static/thumbnails/164131f7-ba48-46ba-8647-5bc45f3440f3.jpgUGM-Indonesia: ColDBlu (Colorectal cancer screening bioDevice by aeBlue chromopr... (2023) - Proj...**Title:** ColDBlu (Colorectal cancer screening bioDevice by aeBlue chromoprotein) **Description:** Colorectal cancer (CRC) screening methods are still not sensitive, cheap, easy, and comfortable so routine screening possibility is small. Whereas, early screening determines the success of therapy. Therefore, we developed LIRA (Loop-initiated RNA activator) OR gate logic biodevice in probiotic, Escherichia coli Nissle 1917, that can detect miR21 and/or mir92a (CRC biomarkers) and probiotic will express aeBlue chromoprotein reporter so patient's feces will turn to blue. [Wiki](https://2022.igem.wiki/ugm-indonesia)https://static.igem.org/peertube/streaming-playlists/hls/20e93c1c-a104-4cb7-bfa5-29712fb56bef/d44a2070-86f2-4ad6-a291-38ce90b5c968-master.m3u8https://video.igem.org/videos/embed/54Hi6UMCEQ8RwxgkM8k7CF12001092023-09-14T15:46:21.274ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6z8wEZvL8ShPSy2fEYGofthttps://video.igem.org/lazy-static/thumbnails/1bf3ff2a-caba-4f60-ac94-b21f7a006cef.jpgWashington: Byephenyl: Engineering Dehalogenase to Enhance PCB Bioremediation (2023) - Project Pr...**Title:** Byephenyl: Engineering Dehalogenase to Enhance PCB Bioremediation **Description:** We set out to engineer a dehalogenase protein to more efficiently remove the chlorines from polychlorinated biphenyls (PCBs). This will allow bacteria expressing the biphenyl pathway to more efficiently degrade these toxic compounds, and constitutes an important step towards making bioremediation and bacterial biofilms a practical tool for controlling pollution. [Wiki](https://2022.igem.wiki/washington)https://static.igem.org/peertube/streaming-playlists/hls/2d1de0a4-ff3a-445d-92a1-9e6926695ddf/47c77f9d-2423-49bc-a316-14fbbb0265ed-master.m3u8https://video.igem.org/videos/embed/6z8wEZvL8ShPSy2fEYGoft1190352023-09-14T15:45:18.170ZYES2023 Project PromotionsNOhttps://video.igem.org/w/38SijYQpJRn7h3hPQeN1Tshttps://video.igem.org/lazy-static/thumbnails/2d599677-e217-446b-826a-10d025c0edba.jpgUSP-EEL-Brazil: CBDynamics (2023) - Project Promotion [English]**Title:** CBDynamics **Description:** In recent years, cannabidiol has gained space in medicine as a component of medicaments for countless treatments, such as therapeutic and oncological treatments. In Brazil, Cannabis sativa, the plant from which CBD is extracted, has several legal restrictions on its cultivation and commercialization. It becomes evident, therefore, the necessity to diversify ways of obtaining this product without the need for the Cannabis plant. Thus, the present work has as its main objective the production of cannabidiol via synthetic biology. The compound will be obtained using recombinant gene technology to express the direct precursor of cannabidiol, cannabidiolic acid (CBDA) using Saccharomyces cerevisiae. Two metabolic pathways will be necessary for this: the geranyl diphosphate (GPP) pathway, already present in the yeast metabolism, and the olivetolic acid pathway. Both precursors will be combined in a second reaction to form cannabigerolic acid, which will subsequently be converted into cannabidiolic acid, which can be purified and converted into CBD. Finally, the proposal for the production of CBD without using Cannabis plants is expected to provide a less bureaucratic and expensive method of obtaining the drug. [Wiki](https://2022.igem.wiki/usp-eel-brazil)https://static.igem.org/peertube/streaming-playlists/hls/114b7b3d-e665-4e9a-871a-896936629668/3e134994-a80f-4018-9be3-8a5a3626e46e-master.m3u8https://video.igem.org/videos/embed/38SijYQpJRn7h3hPQeN1Ts1200222023-09-14T15:49:57.829ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fUWTmY2Jk5STftNjTAWzgehttps://video.igem.org/lazy-static/thumbnails/40da7b98-4765-4405-a628-adab462ebba4.jpgIISER-Tirupati-India: Anthrafelix: A Probiotic Theraputic for IBS-D (2023) - Project Promotion [E...**Title:** Anthrafelix: A Probiotic Theraputic for IBS-D **Description:** ANTHRAFELIX, is a genetically engineered probiotic therapeutic for IBS-D. This probiotic is designed to respond to elevated serotonin levels in the colon by converting the excess serotonin into melatonin. Anthrafelix is able to tackle the root cause of IBS while minimizing side effects for a more effective, cheaper, accessible, and targeted treatment, making it overall more patient-friendly than existing solutions. [Wiki](https://2022.igem.wiki/iiser-tirupati-india)https://static.igem.org/peertube/streaming-playlists/hls/78c47113-14be-47c2-99d7-bead58c7bb07/616f0273-96f7-4f0f-8ec2-c43ca10d925a-master.m3u8https://video.igem.org/videos/embed/fUWTmY2Jk5STftNjTAWzge1200392023-09-14T15:54:59.878ZYES2023 Project PromotionsNOhttps://video.igem.org/w/aQL1m3bb52ApUT9LaSDcJXhttps://video.igem.org/lazy-static/thumbnails/8f6b0177-9fa1-43f2-8f50-b2b9f32619b7.jpgIISER-Mohali: PathoGlow: An Introduction (2023) - Project Promotion [English]**Title:** PathoGlow: An Introduction **Description:** No abstract [Wiki](https://2022.igem.wiki/iiser-mohali)https://static.igem.org/peertube/streaming-playlists/hls/4fb1118b-7403-4d16-a535-62c7cb5e4fcf/f1bdd3e0-5202-42ec-8a8a-8194f3c7ec90-master.m3u8https://video.igem.org/videos/embed/aQL1m3bb52ApUT9LaSDcJX1030422023-09-14T15:57:51.390ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pekxKRcAXoscdGJ8kYES3chttps://video.igem.org/lazy-static/thumbnails/7fff6e1b-8156-4e1f-97b7-c081846893c4.jpgUI-Indonesia: CERVEX - Recombinant Salmonella Typhimurium A1-R as Drug Delivery ... (2023) - Proj...**Title:** CERVEX - Recombinant Salmonella Typhimurium A1-R as Drug Delivery System for Cervical Cancer Treatment **Description:** We are CERVEX from Universitas Indonesia team proudly present to you drug delivery system that could target cervical cancer cells directly. We hope that this project can reduce cervical cancer cases, offering a novel breakthrough in cancer treatments. Stay tuned and enjoy more from us. Just like a rocket, we're CERVEX [Wiki](https://2022.igem.wiki/ui-indonesia)https://static.igem.org/peertube/streaming-playlists/hls/bc1ee79f-5b08-42ba-99df-6fe717664a97/2f887a70-d132-4ce1-9e1c-48d6ae519ddb-master.m3u8https://video.igem.org/videos/embed/pekxKRcAXoscdGJ8kYES3c1030222023-09-14T16:04:37.840ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oeSV85wf58hngT8XjvMCs2https://video.igem.org/lazy-static/thumbnails/c826592d-1988-4043-a9c3-a8df88f3b836.jpgiBowu-China: Bee Protector with Enzymes by Degrading Pesticides (2023) - Project Promotion [English]**Title:** Bee Protector with Enzymes by Degrading Pesticides **Description:** No abstract [Wiki](https://2022.igem.wiki/ibowu-china)https://static.igem.org/peertube/streaming-playlists/hls/b41918fa-1a11-4190-a9a0-c7bae9d8b64d/a0516e49-d137-43aa-a74c-91f16abc2d9f-master.m3u8https://video.igem.org/videos/embed/oeSV85wf58hngT8XjvMCs21190192023-09-14T16:05:09.754ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bMRVYMJx9ZZwYrCyUTfsZshttps://video.igem.org/lazy-static/thumbnails/24ab5bdb-1b08-4ff5-808d-5b233f29bbf2.jpgNUDT-CHINA: ARROW: an Adipocyte-targeting UCP1-delivering PVC particle for body-... (2023) - Proj...**Title:** ARROW: an Adipocyte-targeting UCP1-delivering PVC particle for body-weight control **Description:** Obesity is posing a great threat to people's health. In iGEM2023, we present an innovative approach to burn out the excess fatty acid in adipocytes by targeted delivery of Uncoupling protein 1 protein through an engineered syringe-like nanomachine called PVCs. We hope our tool can provide a fancy and safe choice for body-weight control, thereby contributing to the prevention of obesity-related diseases. [Wiki](https://2022.igem.wiki/nudt-china)https://static.igem.org/peertube/streaming-playlists/hls/5762a08b-04d7-4cfe-8e3f-7c44d20a0a8c/b5eb55ec-9fd6-4728-b440-5168d4e4b23f-master.m3u8https://video.igem.org/videos/embed/bMRVYMJx9ZZwYrCyUTfsZs12002102023-09-14T16:06:54.429ZYES2023 Project PromotionsNOhttps://video.igem.org/w/vQ2Tv9uC2wR3oFCCfVXc1Zhttps://video.igem.org/lazy-static/thumbnails/fea8d1aa-3d30-4a1c-b243-5f1c9f7fe55f.jpgFSHS-GD: Novel Antimicrobial Peptide (2023) - Project Promotion [English]**Title:** Novel Antimicrobial Peptide **Description:** Nowadays, the problem of drug resistance of pathogenic microorganisms has seriously endangered human health.The use of traditional screening techniques to find natural active drugs has encountered high repeat discovery rate and low new rate, and the number of anti-infective drugs on the market has dropped significantly in recent years.Therefore, the development of drug lead molecules with novel structures and new action targets has become the focus of global scientists. Polypeptide compounds have the advantages of few adverse reactions, wide binding ability and good specificity, which balance the characteristics of small molecule drugs and large molecule proteins, combining the advantages of both.Most of the polypeptide antibiotics can target the bacterial cell wall or membrane that is not easy to mutate, and have multiple antibacterial mechanisms such as inhibiting precursor synthesis and perforation, so it is not easy to produce drug resistance. This project intends to develop fusion polypeptide molecules with complementary anti-Gram positive and negative bioactivity through combination biosynthesis techniques. [Wiki](https://2022.igem.wiki/fshs-gd)https://static.igem.org/peertube/streaming-playlists/hls/f18de2b7-0828-4670-9927-fb382697e06d/f209f1a2-dcff-4fc9-b700-889a078be5e2-master.m3u8https://video.igem.org/videos/embed/vQ2Tv9uC2wR3oFCCfVXc1Z1170172023-09-14T15:52:21.733ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ix4iKhZTcGxZSkyw3vGKqmhttps://video.igem.org/lazy-static/thumbnails/36231a3e-c5e4-47e1-897d-eed7017e385c.jpgHongKong-PuiChing: DIMSTAR cell-specific gata4 delivery to regress liver fibrosis (2023) - Projec...**Title:** DIMSTAR cell-specific gata4 delivery to regress liver fibrosis **Description:** Why liver fibrosis? Ranked 9th on the roster of death causes (CDC), liver fibrosis causes approximately 2M deaths per year worldwide. Lamentably, liver fibrosis remains a unmovable enemy as there is no acute cure for the disease, only tradition al therapeutics (ACE inhibitors, e.g: benazepril, Lisinopril, ramipril) for slowing down of the fibrosis progression. Promisingly, nascent discover of of the fibrogenesis agent reveals hope for repression and even reversion of the fibrosis process. With specific gene targetting, it would be a gospel to patients in agony. How can we possibly regress it? Liver injury cause the prime agent: Hepatic stellate cells(HSC)to turn from quiescent to activated state (qHSC->aHSC). The aHSC behaves myofibroblast-like, to secrete α-SMA and collagen, forming the extracellular matrix ECM. Long term alcoholic or drug abuse intensify the response, conducive to chronic liver fibrosis. Hence, silencing the aHSC, deactivating them back to qHSC turns out to be our direction. Note that human EPAS1 gene express HIF2α, HSC activating agent, we utilize transcription factor GATA4 protein to mask the EPAS1 gene, halting qHSC from being activated. The aHSC would also be deactivated without cytokines. How can we derive our therapeutics? Drug: GATA4 is expressed as a drug. As it needs to be internalized by cells, endocytosis-supporting liposomes are used to aid their entry into aHSCs. aHSC targetting: aHSC predominantly expressed a variety of receptors on their membrane during liver fibrosis (PDGFRb, RBP R, CD44..) We attach ligands to the lipsomes' surface and secure aHSC acquisition Since we our ultimate aim is to deliver our liposome to HSC, located right next to the liver sinusoidal capillaries We can ack our liposomes on dead red blood cells, which migrate through the sinusoidal capillaries by principle, dropping the liposome with the cable—>ligand to bin...https://static.igem.org/peertube/streaming-playlists/hls/8e017393-68de-43e0-b316-7b66b82fe560/033edc5f-30b1-4876-8305-e836b37a9dc2-master.m3u8https://video.igem.org/videos/embed/ix4iKhZTcGxZSkyw3vGKqm1200372023-09-14T16:08:22.593ZYES2023 Project PromotionsNOhttps://video.igem.org/w/c3dumwSGnYxTk38ejppuiDhttps://video.igem.org/lazy-static/thumbnails/d62e6bda-91af-475b-8c89-fb0e7a9301b3.jpgIISER-TVM: OASYS: A Novel FRET-based Microfluidic Device to Diagnose MDD (2023) - Project Promoti...**Title:** OASYS: A Novel FRET-based Microfluidic Device to Diagnose MDD **Description:** Major Depressive Disorder, sometimes referred to as clinical depression, is a common yet complex mood-based clinical syndrome that affects around 304 million people worldwide. Current methods to diagnose clinical depression may be prone to subjectivity and variability. iGEM IISER-TVM is developing a novel and objective microfluidic device that uses FRET-based quantifiers to analyze concentrations of five putative blood biomarkers, each linked to MDD. [Wiki](https://2022.igem.wiki/iiser-tvm)https://static.igem.org/peertube/streaming-playlists/hls/5963b596-f4a8-40a7-9d31-b6d411ec4df7/af05ce46-30e2-4e9c-82dc-0d40f8335d94-master.m3u8https://video.igem.org/videos/embed/c3dumwSGnYxTk38ejppuiD12002022023-09-14T16:10:31.937ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8hth6Vm3VZZtwxegyDWUtahttps://video.igem.org/lazy-static/thumbnails/8649c7b7-466b-498d-91b0-c3a8443ce2d7.jpgAthens: ScentiPD (2023) - Project Promotion [English]**Title:** ScentiPD **Description:** The goal of our project is the creation of a portable diagnostic kit for the detection and semi-quantification of specific Volatile Organic Compounds (VOCs) from skin sebum. Those compounds have been associated with Parkinson s Disease (PD), with evidence pointing to their change in concentration occurring long before the evident onset of the disease. The alternative way to measure these compounds would be a GC/MS machine, with obvious drawbacks. Our proposed way for this detection is using the M13 Bacteriophage as a colorimetric biosensor. This technique utilizes the phage s capsid proteins, which can obtain affinity for the target compounds by genetic engineering. After the VOC-protein binding has occurred, the phages swell, changing the way they interact with light, and finally giving off a different color. This color is structural (not dependent on dyes) and non-iridescent (not affected by the viewing angle), and can then be captured and quantified by a camera. [Wiki](https://2022.igem.wiki/athens)https://static.igem.org/peertube/streaming-playlists/hls/3afcae6e-5f43-449b-a35a-2d4183d44277/70aa0719-b7bf-4e36-9f1f-8da6e75cf5b3-master.m3u8https://video.igem.org/videos/embed/8hth6Vm3VZZtwxegyDWUta12001232023-09-14T16:11:04.462ZYES2023 Project PromotionsNOhttps://video.igem.org/w/1YMtr22XySAFC4iu312Jejhttps://video.igem.org/lazy-static/thumbnails/7070926c-fa0e-46b8-8d46-c0af7999fdee.jpgNYCEmpireState: Aptamers for the Detection of Stress-Related Salivary Biomarkers (2023) - Project...**Title:** Aptamers for the Detection of Stress-Related Salivary Biomarkers **Description:** Approximately one in three people suffer from stress and 284 million people worldwide suffer from anxiety disorders. Even the best mental health experts can overlook symptoms, while current diagnosis kits are expensive and inaccessible. We envision an affordable, accessible diagnosis for stress-related disorders that measures salivary biomarkers like cortisol, alpha-amylase, and specific mRNA sequences. Our method uses aptamers to identify these biomarkers and diagnose stress-related disorders. [Wiki](https://2022.igem.wiki/nycempirestate)https://static.igem.org/peertube/streaming-playlists/hls/07edacc1-3eec-416d-801a-685750b3c8d4/d98ec2de-58cb-46b9-aa38-ec1767ad954e-master.m3u8https://video.igem.org/videos/embed/1YMtr22XySAFC4iu312Jej11901152023-09-14T16:08:59.491ZYES2023 Project PromotionsNOhttps://video.igem.org/w/2CUjhzrFrBkbwWJ4MswzuShttps://video.igem.org/lazy-static/thumbnails/490a3393-7679-47c9-9896-5763159689fc.jpgSUSTech-OCE: Microbial Co-culture System for Green and Sustainable Indoor Air Po... (2023) - Proj...**Title:** Microbial Co-culture System for Green and Sustainable Indoor Air Pollution Control **Description:** Indoor air pollution is a significant global health concern. To tackle this issue, our team utilized a microbial co-culture system and gene editing techniques to modify Escherichia coli strains. These modified E.coli strains can absorb and eliminate common indoor pollutants, such as formaldehyde, and also hydrogen sulfide. Moreover, they can produce distinct fluorescent signals to indicate the presence of pollutant concentrations that surpass safety standards. The co-culture system also incorporates cyanobacteria, which perform photosynthesis to absorb carbon dioxide and release oxygen, thus regulating indoor carbon dioxide levels. The energy and carbon sources provided by the cyanobacteria sustain the growth and function of the E. coli strains. Our project aims to offer an environmentally friendly and sustainable approach to controlling indoor air pollution. [Wiki](https://2022.igem.wiki/sustech-oce)https://static.igem.org/peertube/streaming-playlists/hls/0d4027a1-c52e-4cc3-ac24-96ecb693275e/d6c7f08f-a56f-4247-8d33-0a540824e33f-master.m3u8https://video.igem.org/videos/embed/2CUjhzrFrBkbwWJ4MswzuS1200452023-09-14T16:11:37.203ZYES2023 Project PromotionsNOhttps://video.igem.org/w/p5VeVGMNXDnyYQecf862xfhttps://video.igem.org/lazy-static/thumbnails/179e57f0-a849-45c2-9d28-b6add5c6f15d.jpgGreatBay-SCIE: GAStroPurifier, boost the ecological power (2023) - Project Promotion [English]**Title:** GAStroPurifier, boost the ecological power **Description:** The invasive species Achatina fulica (Giant African Snail) is an infamous culprit for triggering a tremendous number of ecological issues in thousands of regions, especially in Shenzhen, China. There are also growing concerns about its primary nematode accomplice, Angiostrongylus cantonensis, parasitizing in the snails' secretions that result in human lethal diseases. GAStroPurifier is a comprehensive solution aiming at minimizing the harmful influences caused by Achatina fulica, with the six-step solution called ALERTS: ATTRACT snails by synthetic fruit odors, LOCK snails with our non-injurious hardware, ELIMINATE the parasites Angiostrongylus cantonensis with synthetic cry protein, REASSURE the killing effects by collecting the snail's mucus for parasite detection before manual TRANSFER, with a kill SWITCH functioned on genetically engineered yeasts for biosafety guarantee. Through these attempts, GreatBay-SCIE will not only provide our local community with a templated approach for integrated control of invasive species, but also significantly contribute to worldwide agriculture and healthcare from the roots of parasitic infections. [Wiki](https://2022.igem.wiki/greatbay-scie)https://static.igem.org/peertube/streaming-playlists/hls/baf1f981-e71f-40af-9539-dd98309d4670/33c0dd71-6de0-4adc-bc65-fad23279fbc2-master.m3u8https://video.igem.org/videos/embed/p5VeVGMNXDnyYQecf862xf12002522023-09-14T16:12:08.887ZYES2023 Project PromotionsNOhttps://video.igem.org/w/5FC6u4X7ym7cTgYPVkKo3ahttps://video.igem.org/lazy-static/thumbnails/6acad54a-ff0c-4f53-b1bf-51fa863e7232.jpgUNT: Engineering Methanotrophs for Greenhouse Gas Mitigation (2023) - Project Promotion [English]**Title:** Engineering Methanotrophs for Greenhouse Gas Mitigation **Description:** Our project focuses on the testing and creation of a promoter library (and the testing of an already established library in methanotrophs) to control the expression of value-added products from harmful greenhouse gas emissions. [Wiki](https://2022.igem.wiki/unt)https://static.igem.org/peertube/streaming-playlists/hls/25ecce44-214d-4117-8e0b-2b1cffa0635d/7657547d-bd04-4867-af6c-a66ae8325bdf-master.m3u8https://video.igem.org/videos/embed/5FC6u4X7ym7cTgYPVkKo3a1200432023-09-14T16:14:30.435ZYES2023 Project PromotionsNOhttps://video.igem.org/w/fVYdiT2wJR8cNEBuuLmk8ahttps://video.igem.org/lazy-static/thumbnails/5064145b-0254-4378-9d3d-d8a2a5758999.jpgToronto: Methanivore - The end to end implementation of landfill gas assimilatio... (2023) - Proj...**Title:** Methanivore - The end to end implementation of landfill gas assimilation using genetically engineered methanotrophs. **Description:** Landfill gasses (LFG) comprise 23% of Canada's methane emissions, making the sustainable management of LFG emissions key for mitigating global warming. The current management strategy involves combusting methane using flaring infrastructure, which releases substantial carbon dioxide and cannot be installed in smaller landfills. Herein, we propose a novel, end-to-end implementation of a synthetic biology solution to consume LFGs using genetically engineered methanotrophs. [Wiki](https://2022.igem.wiki/toronto)https://static.igem.org/peertube/streaming-playlists/hls/78e900c8-4886-462a-96b2-ca0dde54e72b/115a66d9-0cf4-4125-8fb5-a587d3d6ba40-master.m3u8https://video.igem.org/videos/embed/fVYdiT2wJR8cNEBuuLmk8a12002562023-09-14T16:13:54.324ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jT6xYeUL5xe3FEu3QmhQq6https://video.igem.org/lazy-static/thumbnails/9ff4c54c-c3a9-479c-8c59-aaf5c5fac032.jpgNEFU-China: Using Engineered Escherichia coli to Produce Coffee which Makes Myop... (2023) - Proj...**Title:** Using Engineered Escherichia coli to Produce Coffee which Makes Myopia in Remission **Description:** Myopia has emerged as a highly widespread ocular disorder on a global scale. The chemical 7-methylxanthine has demonstrated potential as a viable treatment for myopia, offering a degree of relief. Nevertheless, the production of 7-methylxanthine poses significant challenges, rendering it one of the costliest therapeutic options for myopia. The mechanism for the conversion of caffeine extracted from coffee residues into 7-methyxanthine was developed by our research team, Nefu_China. This pathway was implemented in Escherichia coli and shown notable attributes of cost-effectiveness and high efficiency. The incorporation of the production into coffee can potentially result in the development of a coffee beverage that may alleviate myopia. [Wiki](https://2022.igem.wiki/nefu-china)https://static.igem.org/peertube/streaming-playlists/hls/98e6d965-1968-44d1-b411-5c39df96e075/95515660-73c0-44f5-aa8d-1125eab25047-master.m3u8https://video.igem.org/videos/embed/jT6xYeUL5xe3FEu3QmhQq612001542023-09-14T16:17:51.360ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8nrzeoRZ1KWFPSDu3KLfnYhttps://video.igem.org/lazy-static/thumbnails/8188fdd0-09ea-44db-8fd9-0db36570f017.jpgHUBU-China: Zero-carbon SAF - Flying to a sustainable future (2023) - Project Promotion [English]**Title:** Zero-carbon SAF - Flying to a sustainable future **Description:** Climate crisis is a huge global challenge facing humanity today. The extensive use of fossil fuels has raised the level of CO2 in the atmosphere and caused a global temperature increase, bringing about catastrophic impact on the global climate. Our project is concentrating on the environmental-friendly sustainable aviation fuel (SAF) production through the synthetic biology technology. We introduced an optimized heterologous isobutanol production pathway in the bacteria strain Zymomonas mobilis, and transformed a heterologous carboxysome in as well for CO2 concentrating and CO2 fixation. Finally, a zero-carbon isobutanol production was achieved. Through our project, we hope to make the aircraft flight to a sustainable future. [Wiki](https://2022.igem.wiki/hubu-china)https://static.igem.org/peertube/streaming-playlists/hls/3bae5984-889d-46ac-8174-1428eee8c042/1bb420fb-679b-4ddc-9783-9c94f3aaeb0b-master.m3u8https://video.igem.org/videos/embed/8nrzeoRZ1KWFPSDu3KLfnY11201252023-09-14T16:18:22.643ZYES2023 Project PromotionsNOhttps://video.igem.org/w/s1XyUetVjx8arBijrsoxXihttps://video.igem.org/lazy-static/thumbnails/36af117d-f841-415c-bf28-4ab285c5fe6f.jpgHopkins: Synthesis of Caddisfly Fibroin Proteins Using Prokaryotic Cells for Man... (2023) - Proj...**Title:** Synthesis of Caddisfly Fibroin Proteins Using Prokaryotic Cells for Manufacturing Scale-Up **Description:** Silk production is a highly labor-intensive process, with additional human ethics complications in predominately lower-income regions. We propose an alternative process of silk production through the synthesis of heavy and light chain silk fibroin proteins using expression in prokaryotic cells. This process could then be scaled for mass production with bioreactors. Caddisfly silk fibroin was studied in this project due to its unique underwater adhesive properties and thermal resistance. [Wiki](https://2022.igem.wiki/hopkins)https://static.igem.org/peertube/streaming-playlists/hls/d2afd985-9ac0-4848-a570-4a73e745af93/12c080cb-703d-43af-aea2-276564bfff08-master.m3u8https://video.igem.org/videos/embed/s1XyUetVjx8arBijrsoxXi1190852023-09-14T16:20:51.211ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nGspva8ZLnh2nxTbjy3ybzhttps://video.igem.org/lazy-static/thumbnails/71b53344-34ac-4bb2-94b7-762bfb3f4d63.jpgEvry-Paris-Saclay: OptogenEYEsis (2023) - Project Promotion [English]**Title:** OptogenEYEsis **Description:** The iGEM Evry Paris Saclay team is excited to present a groundbreaking tool in the fight against blindness: OptoGenEYEsis! Our project aims at developing light-sensitive microbial opsins suitable for genetic therapy. The objective is to restore the retina's ability to detect and respond to light, ultimately restoring vision. Existing opsin-based solutions exhibit narrow absorption spectra, suboptimal sensitivity, and limited efficiency in converting light to a nervous electrical signal. Our solution uses enhanced microbial opsins through synthetic biology and microfluidics-based directed evolution for better absorption, sensitivity, and light-to-electricity conversion in visual processing. [Wiki](https://2022.igem.wiki/evry-paris-saclay)https://static.igem.org/peertube/streaming-playlists/hls/afb5ef79-ef07-49f2-bb8c-6e388cb0ad75/bfbad744-9203-41dc-9e3b-647e1fccbe6f-master.m3u8https://video.igem.org/videos/embed/nGspva8ZLnh2nxTbjy3ybz11701922023-09-14T16:32:01.235ZYES2023 Project PromotionsNOhttps://video.igem.org/w/p7oRyc7UtCbi388yBPXVKshttps://video.igem.org/lazy-static/thumbnails/45850038-0f52-4848-9a61-a649f122c2da.jpgTJUSLS-China: P-eat: A targeted mutation of PEase to improve thermal stability (2023) - Project P...**Title:** P-eat: A targeted mutation of PEase to improve thermal stability **Description:** We directed a short film hoping to tell viewers about the discovery and existing shortcomings of PEase, and then introduce our project. Changes in the properties of PE itself under high temperature will improve the efficiency of enzymatic reactions. Therefore, we hope to optimize the thermal stability of PEase through rational mutation, laying foundation for efficient biodegradation of polyethylene plastics in the future. [Wiki](https://2022.igem.wiki/tjusls-china)https://static.igem.org/peertube/streaming-playlists/hls/bb26bc7f-9f77-4262-9168-e3ac3c4dfc34/2406ce65-61cd-43ad-b646-3ffc6aedec00-master.m3u8https://video.igem.org/videos/embed/p7oRyc7UtCbi388yBPXVKs12001502023-09-14T16:33:48.221ZYES2023 Project PromotionsNOhttps://video.igem.org/w/1esy3ZtefBrdWvNmpTAeD7https://video.igem.org/lazy-static/thumbnails/17faac6a-776b-4893-9b32-dd4784cd4650.jpgLatvia-Riga: Full Circle (2023) - Project Promotion [English]**Title:** Full Circle **Description:** Chemically synthesized cyclic peptide drugs have been on the market for decades with valuable bioactive properties. But with the recent discovery of the molecular mechanism behind the cyclisation of peptides in plant species, biosynthesis becomes a plausible effort. Harnessing the activity of the BURP-domain protein, novel cyclic peptides may be produced and applied in various fields spanning from combating antimicrobial resistance in medicine to pesticide use in agriculture. [Wiki](https://2022.igem.wiki/latvia-riga)https://static.igem.org/peertube/streaming-playlists/hls/01e1085b-0c9c-412a-8a75-8b775538191c/25896b6e-6381-43de-bbdf-5839732378af-master.m3u8https://video.igem.org/videos/embed/1esy3ZtefBrdWvNmpTAeD712001172023-09-14T16:47:26.721ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8qVyTHU5qXTavs14yQRbiVhttps://video.igem.org/lazy-static/thumbnails/82232e86-bd43-4581-b9bc-284c084ff77e.jpgMissouri-Miners: My-RNA: An Early Stage Breast Cancer Detection Device (2023) - Project Promotion...**Title:** My-RNA: An Early Stage Breast Cancer Detection Device **Description:** My-RNA is a CRISPR-Cas13-based biosensor that scans a urine sample to detect miRNA 424-5p. This miRNA is directly correlated to the early stages of breast cancer. It is to be used as a simple diagnostic tool that people can get in drugstores for easy access. [Wiki](https://2022.igem.wiki/missouri-miners)https://static.igem.org/peertube/streaming-playlists/hls/3c2ad53f-5902-4e24-9297-ef90c7595adf/c2df6584-7c4e-464a-a7f2-8d559fd19cd4-master.m3u8https://video.igem.org/videos/embed/8qVyTHU5qXTavs14yQRbiV1100402023-09-14T16:43:15.305ZYES2023 Project PromotionsNOhttps://video.igem.org/w/uJPVdQfpFTCSi3qh9YFJwihttps://video.igem.org/lazy-static/thumbnails/6165a323-1a50-49bf-a973-55301f95b5a1.jpgNANJING-NFLSFC: Detection and Remediation of Heavy Metal-contaminated Environmen... (2023) - Proj...**Title:** Detection and Remediation of Heavy Metal-contaminated Environment-Cadmium Rapid Test Strips in Water(CRTSW) **Description:** Heavy metal pollution refers to the environmental pollution caused by heavy metals or their compounds. It is mainly caused by anthropogenic factors such as mining, exhaust emissions, sewage irrigation, and using products with excessive heavy metals. Heavy metal content in the environment increases beyond the normal range due to human activities, which directly endangers human health and leads to the deterioration of environmental quality. The detection of pollutants and environmental remediation is still facing great challenges. Our project correlates the expression of target proteins with fluorescent reporter genes, which enables rapid, efficient, and visualized detection of heavy metal pollutants and efficient expression of target proteins for the detection and remediation of polluted environments. This research has important theoretical significance and potential applications for the remediation of ecological environments. [Wiki](https://2022.igem.wiki/nanjing-nflsfc)https://static.igem.org/peertube/streaming-playlists/hls/e8baa6ae-2282-4c4b-9f42-111bd623875d/b041cfa5-33b0-4923-ab8a-4eaff484f667-master.m3u8https://video.igem.org/videos/embed/uJPVdQfpFTCSi3qh9YFJwi1190752023-09-14T16:45:54.418ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6Rh1qPGvtdz6aTFVLe5nJChttps://video.igem.org/lazy-static/thumbnails/d603d04b-709c-4658-b64c-bb335a1536ff.jpgWIST: Unbe-leaf-able ecological friendly Protection creates orchid miracle from ... (2023) - Proj...**Title:** Unbe-leaf-able ecological friendly Protection creates orchid miracle from soft-rot disaster **Description:** Orchids, renowned for their aesthetic appeal, ecological significance, and economic value, face a severe threat from bacterial soft rot disease caused by Dickeya fangzhongdai. This study focuses on combating the pathogen through the disruption of quorum sensing and AHL signaling. Dickeya fangzhongdai employs plant cell wall degrading enzymes (PCWDEs) and quorum sensing to initiate tissue degradation and disease development. By applying quorum quenching organisms capable of degrading AHL signals, the communication among bacteria can be hindered, effectively disrupting the production of PCWDEs. Additionally, the utilization of the aiiA gene encoding AHL lactonase allows for the degradation of AHL signaling molecules, further halting PCWDE production. This research project aims to protect orchid viability and agricultural productivity by offering a promising approach to combat Dickeya fangzhongdai. The findings have significant implications for orchid cultivation and provide insights into effective disease management strategies in agricultural settings. [Wiki](https://2022.igem.wiki/wist)https://static.igem.org/peertube/streaming-playlists/hls/2f5f00bf-ddc7-4a6c-9fd1-451f5fc8854c/d3b9eab2-6d73-4370-80d3-2d01fde52838-master.m3u8https://video.igem.org/videos/embed/6Rh1qPGvtdz6aTFVLe5nJC11701892023-09-14T16:48:04.126ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4oTEChdJBCAYdoKJMXXNV2https://video.igem.org/lazy-static/thumbnails/ebf08d98-0d27-43b2-888c-e5c85f46ae8a.jpgUOregon: HGT: Hostile Gene Transfer (2023) - Project Promotion [English]**Title:** HGT: Hostile Gene Transfer **Description:** HGT: Hostile Gene Transfer Our project is an engineered strain of E coli Nissle 1917 that can selectively kill GI pathogens by transferring malicious DNA payloads. Our initial target is Helicobacter Pylori, a stomach pathogen and class 1 carcinogen that infects more than half the world's population and is directly responsible for 14,500 deaths annually. [Wiki](https://2022.igem.wiki/uoregon)https://static.igem.org/peertube/streaming-playlists/hls/1b7d9e83-b748-4156-aee2-b3722fe10aa3/1166d964-fcd0-4735-9210-a0097c5fc415-master.m3u8https://video.igem.org/videos/embed/4oTEChdJBCAYdoKJMXXNV21210122023-09-14T16:54:43.301ZYES2023 Project PromotionsNOhttps://video.igem.org/w/uukX46MevcjBM7Qkk2pTikhttps://video.igem.org/lazy-static/thumbnails/4400d359-5245-414a-be12-eee9527bda9d.jpgVITVellore: PETrify-Unbottling the Future, One Bottle at a Time (2023) - Project Promotion [English]**Title:** PETrify-Unbottling the Future, One Bottle at a Time **Description:** Our current project focuses on biologically degrading PET bottles; which are a common source of microplastic entry into the human body. These PET bottles often clearly indicate that they have to be crushed for recycling, but often, due to behavioural reasons ingrained in society, end up being reused or are incorrectly disposed of into the environment. In both cases, they cause leaching of microplastics leading to endocrine disruption and gut dysbiosis among other problems in humans while in the environment, they ferry toxic metals and act as 'trojan horses' and get biomagnified, eventually finding their way into the food chain. It is high time that we address this issue which is not just confined to India, but has repercussions globally. Meet PETrify: a combination of FAST PETases and mutant MHETases to create a dual enzyme system using FAST PETase and mutated MHETases of equivalent efficiency to ensure complete degradation. In this pursuit , we first conducted in silico studies to identify possible MHETase mutations, sorted them out using clustering algorithms such as MutCompute and shortlisted on the basis of simulations. Following this in the wet lab, using E. coli as our chassis organism, we are comparing the wild type with the mutant through expression studies and degradation analysis to verify our in silico studies. The need for a double enzyme system arises because while PET can be broken down to its monomeric form MHET by PETase, MHET has the ability to polymerize back unless further broken down, hence current PET breakage strategies are ineffective. Our project addresses this key lacuna and aims to solve this crucial issue through the mutations we induce in MHET to meet the efficiency of FAST-PETase so as to create a positive degradation loop without high risk of the repolymerisation of MHET. The by-products, terephthalic acid, and ethylene glycol are key compounds in ...https://static.igem.org/peertube/streaming-playlists/hls/e6b5008e-2b6a-4c8e-be71-8e97b7289661/ad1d5ae9-31d5-4949-9f4c-eea8259d0104-master.m3u8https://video.igem.org/videos/embed/uukX46MevcjBM7Qkk2pTik11901102023-09-14T16:46:29.247ZYES2023 Project PromotionsNOhttps://video.igem.org/w/trsrWtKufJFJbbHzycHgPzhttps://video.igem.org/lazy-static/thumbnails/2378f138-8ebb-475f-879b-b869821f6ce3.jpgTAU-Israel: Ctrl C: Your Ultimate Solution for Controlling Plasmid Copy Number (2023) - Project P...**Title:** Ctrl C: Your Ultimate Solution for Controlling Plasmid Copy Number **Description:** In our iGEM project, 'CtrlC,' we're developing a user-friendly web tool that empowers scientists with the entire gradient of ColE1-like plasmid copy number (PCN). Our approach combines computational and biological methods to construct a robust model of the plasmid replication system. Users will receive a modified plasmid sequence based on their desired PCN. Our tool is relevant for protein production, metabolic pathway optimization, and genetic construct stability [Wiki](https://2022.igem.wiki/tau-israel)https://static.igem.org/peertube/streaming-playlists/hls/de34a302-4a46-4a2c-94f2-ecedbd832ebb/27d0dcab-d269-42e4-b45c-a65e11a2d1b7-master.m3u8https://video.igem.org/videos/embed/trsrWtKufJFJbbHzycHgPz12002332023-09-14T16:50:31.460ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4fbLtpnhnjVseHHBXpRFgmhttps://video.igem.org/lazy-static/thumbnails/f78622d4-6c0c-46b6-99f5-2fb308f26047.jpgPIHS-Beijing: Optimization of Human Lactoferrin Expression in E.Coli With Additi... (2023) - Proj...**Title:** Optimization of Human Lactoferrin Expression in E.Coli With Addition of Ferric and Ferrous lons **Description:** Lactoferrin is a very important glycoprotein found namely in mammal lactation and colostrum. It plays crucial roles in iron transportation and immunity of neonates. Currently, possible solutions for children without direct access to human lactoferrin are substitution with other mammalian lactoferrin, extracted human lactoferrin from breast milk and recombinant production using eukaryotes. Each one has their own issues, be it functionally, economically or ethically. Prokaryotic production of human lactoferrin has been largely inefficient due to the protein’s strong bactericidal abilities. We have expressed human lactoferrin in E.Coli in different conditions including variables in temperature and iron ion concentration, and found patterns indicating beneficial effects of the added ions on bacterial survival on top of producing functioning proteins. This points us farther along the way of finding a more efficient and economically friendly method of human lactoferrin production through prokaryotic expression under optimum conditions. [Wiki](https://2022.igem.wiki/pihs-beijing)https://static.igem.org/peertube/streaming-playlists/hls/1a4676c9-baaf-4b16-b96a-579cf1d12bae/a8bea130-7b94-433c-bbc2-954d2522fea7-master.m3u8https://video.igem.org/videos/embed/4fbLtpnhnjVseHHBXpRFgm1200242023-09-14T16:55:06.928ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8Rs2mDu4Av1DA7TFVKGFquhttps://video.igem.org/lazy-static/thumbnails/16a9f5b4-e7a8-4881-a7d8-a79b78b03994.jpgHainanU-China: Improving the micro-ecology of the skin (2023) - Project Promotion [English]**Title:** Improving the micro-ecology of the skin **Description:** No abstract [Wiki](https://2022.igem.wiki/hainanu-china)https://static.igem.org/peertube/streaming-playlists/hls/3f9773ec-7711-4556-bfe8-09e624b69158/90497fde-791d-42a2-9ba1-2f1f86c6f0a1-master.m3u8https://video.igem.org/videos/embed/8Rs2mDu4Av1DA7TFVKGFqu1200262023-09-14T16:57:16.815ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tY5DXbxBCGZF8nJQsS7aKbhttps://video.igem.org/lazy-static/thumbnails/4fafe2e0-2f82-4b11-a3b5-02c5782b81c9.jpgEstonia-TUIT: Plan Bee (2023) - Project Promotion [English]**Title:** Plan Bee **Description:** In recent years, the population of bees worldwide has declined due to infectious diseases and other factors. Deformed wing virus is one of the most widespread viruses that infect bees. Estonia-TUIT team aims to help bees fight it by implementing RNAi technology. We engineer yeast cells to express shRNAs that can be fed as food supplements or injected directly into honeycombs. Increase in shRNA concentration in bee cells should stimulate native RNAi response to protect from virus. [Wiki](https://2022.igem.wiki/estonia-tuit)https://static.igem.org/peertube/streaming-playlists/hls/e27b4366-0367-4ab2-a43f-aed5b844705c/969dd475-f81a-4b3d-ba14-e0c68cc886b0-master.m3u8https://video.igem.org/videos/embed/tY5DXbxBCGZF8nJQsS7aKb120013382023-09-14T16:57:48.381ZYES2023 Project PromotionsNOhttps://video.igem.org/w/nfLsYvcQh77prQxhx1QcWNhttps://video.igem.org/lazy-static/thumbnails/7d8c8fa0-eafb-4424-9268-d7b82b754069.jpgPIHS-Beijing: Optimization of Human Lactoferrin Expression in E.Coli With Additi... (2023) - Proj...**Title:** Optimization of Human Lactoferrin Expression in E.Coli With Addition of Ferric and Ferrous lons **Description:** Lactoferrin is a very important glycoprotein found namely in mammal lactation and colostrum. It plays crucial roles in iron transportation and immunity of neonates. Currently, possible solutions for children without direct access to human lactoferrin are substitution with other mammalian lactoferrin, extracted human lactoferrin from breast milk and recombinant production using eukaryotes. Each one has their own issues, be it functionally, economically or ethically. Prokaryotic production of human lactoferrin has been largely inefficient due to the protein’s strong bactericidal abilities. We have expressed human lactoferrin in E.Coli in different conditions including variables in temperature and iron ion concentration, and found patterns indicating beneficial effects of the added ions on bacterial survival on top of producing functioning proteins. This points us farther along the way of finding a more efficient and economically friendly method of human lactoferrin production through prokaryotic expression under optimum conditions. [Wiki](https://2022.igem.wiki/pihs-beijing)https://static.igem.org/peertube/streaming-playlists/hls/ac1fba2a-b6c2-47f1-a62b-b796e243b256/e13e09f3-f653-40dd-8970-d305e4c196c5-master.m3u8https://video.igem.org/videos/embed/nfLsYvcQh77prQxhx1QcWN120092023-09-14T16:58:15.001ZYES2023 Project PromotionsNOhttps://video.igem.org/w/iVfbHmCb45yV2gWX3wsMYNhttps://video.igem.org/lazy-static/thumbnails/4c74a610-b159-42f1-9f3b-1fe7ffec05e5.jpgHUBU-SKY-China: Hydrosoilguard (2023) - Project Promotion [English]**Title:** Hydrosoilguard **Description:** The team produces hydrogen rich water through synthetic biology and uses it for agricultural irrigation, thereby reducing fertilizer application and protecting soil and ecological environment. [Wiki](https://2022.igem.wiki/hubu-sky-china)https://static.igem.org/peertube/streaming-playlists/hls/911a84c7-50d7-4a9d-9cf0-3d0feace2322/ce845ca3-7c8c-45f0-b7da-f72dc01cec78-master.m3u8https://video.igem.org/videos/embed/iVfbHmCb45yV2gWX3wsMYN1170662023-09-14T16:58:42.760ZYES2023 Project PromotionsNOhttps://video.igem.org/w/d9eM1Yzs5D7zwYNabZotNyhttps://video.igem.org/lazy-static/thumbnails/17fdeb36-4856-4dff-aabc-0bae23fef54b.jpgCambridge: B.Max (2023) - Project Promotion [English]**Title:** B.Max **Description:** Cambridge is working on a protective B. subtilis biofilm called B.Max that can colonise surfaces and resist invasion by pathogenic bacteria. We aim to apply our biofilm in animal farms to reduce pathogen load, so that preventative antimicrobial use in agriculture can be avoided. We have also incorporated a pathogen sensor into the system that would allow farmers to notice a need for targeted disinfection. [Wiki](https://2022.igem.wiki/cambridge)https://static.igem.org/peertube/streaming-playlists/hls/62541a9b-7f87-4b26-8747-46b05f88f0d8/af0af36d-8429-4bb8-a240-46c42fa2c755-master.m3u8https://video.igem.org/videos/embed/d9eM1Yzs5D7zwYNabZotNy12001402023-09-14T16:59:14.950ZYES2023 Project PromotionsNOhttps://video.igem.org/w/htqbnUGHixpXkL2woBYhKWhttps://video.igem.org/lazy-static/thumbnails/49f2c44e-dd3f-468b-94e5-58ba77162517.jpgLund: Bacterial Degradation of Diclofenac (2023) - Project Promotion [English]**Title:** Bacterial Degradation of Diclofenac **Description:** Detoxifying Ecosystems (DeCo) from Lund, Sweden, aims to modify Bacillus subtilis in order to degrade diclofenac in wastewater. Diclofenac is a widely used anti-inflammatory drug that's not actively removed from our wastewater, causing harm to the aquatic ecosystem in Sweden and around the world. We apply synthetic biology to try to improve the native laccase of Bacillus subtilis as well as introduce novel laccases in the bacteria. [Wiki](https://2022.igem.wiki/lund)https://static.igem.org/peertube/streaming-playlists/hls/8566337e-1676-40c1-a3ef-6a9ac8dd5de4/57dbcf2e-1ef9-44ae-abd7-ff3a9e8b7452-master.m3u8https://video.igem.org/videos/embed/htqbnUGHixpXkL2woBYhKW1200402023-09-14T17:01:03.442ZYES2023 Project PromotionsNOhttps://video.igem.org/w/pxYbVx8r9ea7YA9tWJ9EKNhttps://video.igem.org/lazy-static/thumbnails/a0f11173-dae7-4807-a96d-80dfbf774398.jpgSeoul-Korea: Monitro: Arduino-based Nitrate Biosensor (2023) - Project Promotion [English]**Title:** Monitro: Arduino-based Nitrate Biosensor **Description:** Water is a necessity to sustain life. Yet, the unprecedented effects of climate change have triggered a hidden threat that could devastate our aquatic environment — eutrophication. In response, our team decided to engineer a novel solution for the early detection of eutrophication in bodies of water. Our team envisions a cost-effective and robust nitrate biosensor that will allow local authorities to detect hotspots and entry points of abundant nitrate and devise specific plans accordingly. [Wiki](https://2022.igem.wiki/seoul-korea)https://static.igem.org/peertube/streaming-playlists/hls/beb8df93-0af4-4304-bb8f-dcd404b0c1a4/9526df69-f534-4c39-a69f-7ec2bb3ba2f5-master.m3u8https://video.igem.org/videos/embed/pxYbVx8r9ea7YA9tWJ9EKN1180662023-09-14T17:01:33.367ZYES2023 Project PromotionsNOhttps://video.igem.org/w/9gPbb1pdpTpB78kEh5bTxChttps://video.igem.org/lazy-static/thumbnails/e65b7123-9060-490d-87a7-b707177442f4.jpgIISER-Kolkata: XANTHACINATOR (2023) - Project Promotion [English]**Title:** XANTHACINATOR **Description:** Our project addresses the significant challenge posed by bacterial blight in rice farming, which results in substantial crop losses and annual economic losses of approximately US 3.6 billion dollars in India alone. Inspired by stakeholders and guided by the need for an eco-friendly, user-friendly, and sustainable solution, we present XANTHACINATOR. This innovative system provides a two-fold solution: first, a detection system that prevents farmers from confusing nutrient deficiencies with bacterial blight, and second, a bio-control agent utilizing OMV and Cas12 CRISPR machinery to effectively combat Xanthomonas phytopathogens. [Wiki](https://2022.igem.wiki/iiser-kolkata)https://static.igem.org/peertube/streaming-playlists/hls/42fe56b4-c8c9-40ab-aed5-86375f282526/184a6709-8122-435f-88e2-3da440f5a05b-master.m3u8https://video.igem.org/videos/embed/9gPbb1pdpTpB78kEh5bTxC1180942023-09-14T17:02:02.799ZYES2023 Project PromotionsNOhttps://video.igem.org/w/kgEjvXjLXf7HcJbJzL9THvhttps://video.igem.org/lazy-static/thumbnails/dabfa8df-16f2-4c5d-95ce-a8dd1de36c3d.jpgPLKNPLC-HK: Dye Decomposition Bacteria (2023) - Project Promotion [English]**Title:** Dye Decomposition Bacteria **Description:** Using the dye-decomposing enzyme from fungi and genetically modifying the gene into bacteria, bacteria can provide a dye-treating method that is more environmentally beneficial and convenient than traditional treating methods. [Wiki](https://2022.igem.wiki/plknplc-hk)https://static.igem.org/peertube/streaming-playlists/hls/9c0d67fa-8032-437d-b44d-b1511da82cb3/e32d94f9-7a36-4537-8178-acd9b3341354-master.m3u8https://video.igem.org/videos/embed/kgEjvXjLXf7HcJbJzL9THv910422023-09-14T17:02:44.475ZYES2023 Project PromotionsNOhttps://video.igem.org/w/tpYGdwLpCMNzrVSNS51QrBhttps://video.igem.org/lazy-static/thumbnails/2f19e922-3d3f-4948-ae0c-799fde38636c.jpgJapan-United: CrimsonNinjas_jp (2023) - Project Promotion [English]**Title:** CrimsonNinjas_jp **Description:** We, Japan-United, we are utilizing Japan's ethical, high-quality saffron cultivation history to address the pressing issues of depression and suicide rates. Through synthetic biology, we're developing a pathway to affordably extract saffron's antidepressant compounds, bypassing previous cultivation hurdles.Our approach relies on groundbreaking iGEM technology that stops the proliferation of Escherichia coli. This initiative serves as a significant milestone, setting the stage for various iGEM projects to address societal challenges while adhering to regulatory guidelines, consistent with the Cartagena Protocol. [Wiki](https://2022.igem.wiki/japan-united)https://static.igem.org/peertube/streaming-playlists/hls/ddffca00-43cd-40f4-b5c3-16ad7342798d/dd6dd4c9-fda3-46dc-a5ce-7d2337915120-master.m3u8https://video.igem.org/videos/embed/tpYGdwLpCMNzrVSNS51QrB120014282023-09-14T17:06:37.996ZYES2023 Project PromotionsNOhttps://video.igem.org/w/h459RKMmTs1bB4t3mStAHVhttps://video.igem.org/lazy-static/thumbnails/619a3281-25d2-4425-bb30-9e006e0d58ff.jpgNUS-Singapore: OTTER: Empowering Tomorrow's Creators (2023) - Project Promotion [English]**Title:** OTTER: Empowering Tomorrow's Creators **Description:** With Optimised Technique for Toggle Engineering and Ranking (OTTER), RNA engineering becomes easier. Our focus is on improving in-silico simulation for RNA-RNA interactions to predict the effectiveness of RNA switch systems such as STARs. Here, we leverage the use of large language models trained on a corpus of RNA interactome data. We also designed a new workflow for RNA library generation that characterises various activity states of an RNA switch in one pass. [Wiki](https://2022.igem.wiki/nus-singapore)https://static.igem.org/peertube/streaming-playlists/hls/82000252-c2d4-419b-aa8c-3ca068c4691f/78812958-90b4-4de6-861d-bc4f9c802192-master.m3u8https://video.igem.org/videos/embed/h459RKMmTs1bB4t3mStAHV12003112023-09-14T17:07:45.996ZYES2023 Project PromotionsNOhttps://video.igem.org/w/8vjirT3QNdkswHDsH6ehGehttps://video.igem.org/lazy-static/thumbnails/807e951b-5b85-4b2a-adaf-44b9c94e92ab.jpgMunich: Bee: B-cell engineering & enhancement (2023) - Project Promotion [English]**Title:** Bee: B-cell engineering & enhancement **Description:** Our project focuses on a novel synthetic biology concept of B-cell engineering. We are genetically engineering B-cells to produce a specific engineered antibody with the aim of using these cells as living and evolving drugs in cell therapy. Our goal is to address the epidemic of neurodegenerative diseases, particularly Alzheimer's, to protect high-risk patients from multi-resistant pathogens, and to tackle chronic viral diseases, such as MRSA and hepatitis B virus. We are also committed to ensuring that the necessary safeguards are implemented. [Wiki](https://2022.igem.wiki/munich)https://static.igem.org/peertube/streaming-playlists/hls/3cc7d176-a4f8-4195-b8c2-b15770554355/1b140903-13de-4d5f-8dd8-bc7e1b48ba5f-master.m3u8https://video.igem.org/videos/embed/8vjirT3QNdkswHDsH6ehGe1150942023-09-14T17:08:14.319ZYES2023 Project PromotionsNOhttps://video.igem.org/w/82i5wNCDmoFT2JGHvzBYNnhttps://video.igem.org/lazy-static/thumbnails/0b4f8081-86dd-4f1a-b41d-53dc1045a2b2.jpgSUSTech-MED: No title (2023) - Project Promotion [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/sustech-med)https://static.igem.org/peertube/streaming-playlists/hls/38de3d39-6220-4c3e-9c36-c69a79d40c49/6a724690-032c-4ceb-aefd-f38720811a4b-master.m3u8https://video.igem.org/videos/embed/82i5wNCDmoFT2JGHvzBYNn11901112023-09-14T17:09:42.863ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oKGRJbJKPrkM5m3y8purowhttps://video.igem.org/lazy-static/thumbnails/c6df25d9-54d2-43c3-b3f7-533b31f314c9.jpgUNSW-Australia: Enzocrete: Cementing Cleaner Concrete Construction (2023) - Project Promotion [En...**Title:** Enzocrete: Cementing Cleaner Concrete Construction **Description:** Concrete revolutionised construction, allowing speeds and scales never seen before. But nothing comes without its price. Creating concrete releases vast amounts of CO2, amounting to over 10% of global emissions. But through the transfer of powerful MICP genes from H. pylori to the easily propagated E. coli, combined with the elimination of the toxic ammonia byproduct, we stand poised to herald a new age of construction, we give you Enzocrete. [Wiki](https://2022.igem.wiki/unsw-australia)https://static.igem.org/peertube/streaming-playlists/hls/b843363d-96b2-4396-ae4f-9538c2a3c2ce/eb364c6a-1fe6-4811-a8bf-e4362578faef-master.m3u8https://video.igem.org/videos/embed/oKGRJbJKPrkM5m3y8purow1200482023-09-14T17:10:34.409ZYES2023 Project PromotionsNOhttps://video.igem.org/w/vPhu75A4REUqVZYNDnMHx4https://video.igem.org/lazy-static/thumbnails/2915ceb9-c70f-47a8-8e52-b8178707d4e8.jpgStanford: ARC: Antibiotic Resistance Control - Engineering T7 Phage for Sub-Host... (2023) - Proj...**Title:** ARC: Antibiotic Resistance Control - Engineering T7 Phage for Sub-Host Specificity **Description:** Algal blooms and poor water quality caused by antibiotic resistant pathogens that plague Lake Merritt in Oakland, CA endanger the well-being of the local environment and its residents. Our project, Antibiotic Resistance Control (ARC) enhances bacteriophage sub-host specificity using an RNA switch to control the phage lytic activity to only kill targets that expressing the targeted antibiotic resistant gene. We hope our system can lay the groundwork for bacteriophages to be an appealing bio-solution to the antibiotic resistance crisis. [Wiki](https://2022.igem.wiki/stanford)https://static.igem.org/peertube/streaming-playlists/hls/f1732326-5f3c-44eb-91e9-f973897793c5/f4155b43-094e-4faf-9a49-25d677465a1c-master.m3u8https://video.igem.org/videos/embed/vPhu75A4REUqVZYNDnMHx412002672023-09-14T17:11:46.258ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4J2SQ5ou7CZ2Sytmuog9Sihttps://video.igem.org/lazy-static/thumbnails/245889f9-b106-4685-bf1d-e0e213327197.jpgthessaloniki: Euphoresis: a synbio soil-ution (2023) - Project Promotion [English]**Title:** Euphoresis: a synbio soil-ution **Description:** In the era of climate change, wildfires have evolved to be major threats to the forest ecosystem. They lead to biodiversity extinction, soil erosion, and a lack of nutrients useful for plants, making natural forest regeneration extremely difficult. A biopolymer, Bacillus subtilis, a cyanobacterium, and seeds join forces to form “Euphoresis”, iGEM Thessaloniki’s proposal for a SynBio, sustainable restoration of burned lands, which will secure a bright future for forests! [Wiki](https://2022.igem.wiki/thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/1e29cf87-f043-40df-bc44-6e3d169c523d/e61bd999-6adb-4d04-8f19-9ef6f5fa75c9-master.m3u8https://video.igem.org/videos/embed/4J2SQ5ou7CZ2Sytmuog9Si12002152023-09-14T17:12:23.071ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jX8bSRz6nsxtVKrttRAVFthttps://video.igem.org/lazy-static/thumbnails/a20345ed-7243-457a-abce-dc17ae6a8342.jpgSYPHU-China: HER2-Positive Tumor Stalkers (2023) - Project Promotion [English]**Title:** HER2-Positive Tumor Stalkers **Description:** In 2023, SYPHU-China focuses on targeted therapy for HER2-positive solid tumors. Protein engineering techniques were used to construct chemoreceptor eTlpC that can target tumor microenvironments with high lactate concentration, and ADC(Antibody-drug conjugate) drugs were used as a means to attack tumors. A synthetic biology approach was utilized to ensure the safety of LBP(Live Biotherapeutic Products) drugs using gene circuits to construct population sensing modules and suicide switch modules. Based on the chassis cell E.coli Nissle1917, its genome was edited by CRISPR-Cas9 to make it more suitable to be the chassis cell for this project. The final construction of eCancerKiller that can target the tumor microenvironment and kill HER2-positive tumors using ADC drugs. [Wiki](https://2022.igem.wiki/syphu-china)https://static.igem.org/peertube/streaming-playlists/hls/9976d52c-09e4-4d73-9954-162caf0962e5/77b0ba9d-4ed0-482e-8997-7d2e975bdd1c-master.m3u8https://video.igem.org/videos/embed/jX8bSRz6nsxtVKrttRAVFt1160712023-09-14T17:13:46.237ZYES2023 Project PromotionsNOhttps://video.igem.org/w/ppVc6Ac9BQoPCoCfzRAqXPhttps://video.igem.org/lazy-static/thumbnails/662aa46b-a85c-4a12-9ebd-05c5bc5d20de.jpgDUT-China: A "plug-and-play" modular tool based on Mi3 protein cage (2023) - Project Promotion [E...**Title:** A "plug-and-play" modular tool based on Mi3 protein cage **Description:** Nowadays，Early and rapid detection can‘t meet the urgent need detection of cardiovascular disease, cancer, infection and other major diseases. Therefore, our project has developed a "plug-and-play" modular tool using protein cages as a platform, which has the potential for applying widely in household scenarios by using a mini fluorescence imaging device. [Wiki](https://2022.igem.wiki/dut-china)https://static.igem.org/peertube/streaming-playlists/hls/bd991382-10d7-4614-b7bb-d472a37c8685/0b1ea677-762e-488b-851e-4e231ecbfe03-master.m3u8https://video.igem.org/videos/embed/ppVc6Ac9BQoPCoCfzRAqXP12001562023-09-14T17:15:26.946ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jD8smBLRtVBencP6woKp8nhttps://video.igem.org/lazy-static/thumbnails/8704009d-1025-4f56-aac0-c24d4d138389.jpgBiota Talks #1 - Chloroplast-Derived Cell-Free Systems: Advancing Plant Synthetic Biology through...We launched the Biota Talks on September 16, 2023 with a discussion on Chloroplast-Derived Cell-Free Systems. We covered advancing Plant Synthetic Biology through rapid prototyping through [OpenPlast](https://2021.igem.org/Team:Marburg), an [iGEM Competition](https://competition.igem.org/) project from the 2021 Marburg team.https://static.igem.org/peertube/streaming-playlists/hls/96f39bfb-ba39-44bc-9750-6b9c0a7c927f/1fe5c021-c616-4c72-b7d0-efdd36ddedc4-master.m3u8https://video.igem.org/videos/embed/jD8smBLRtVBencP6woKp8n31600152023-09-17T20:11:12.792ZYESiGEM CommunityNOhttps://video.igem.org/w/reFyymiTzsfLnS7eYi1TAVhttps://video.igem.org/lazy-static/thumbnails/e5298b26-09dc-4e0f-99ee-840e1ac43182.jpgMcGill: Bioblocks Demonstration (2023)A demonstration of our gene expression pathway learning kit. https://2023.igem.wiki/mcgill/ https://static.igem.org/peertube/streaming-playlists/hls/cc5d841b-ff2c-4b2d-9ca6-fc5de3622365/fb92e8a8-0382-48ba-a01a-ca24ef6a0a52-master.m3u8https://video.igem.org/videos/embed/reFyymiTzsfLnS7eYi1TAV480842023-09-19T22:56:56.949ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oa48xb5WGB4shFpnVFL3TVhttps://video.igem.org/lazy-static/thumbnails/c90e5329-9d1b-4cc1-b378-5f2c53ec5287.jpgMcGill: Opentron Demo (2023)A demonstration of our Opentron robot in action. https://2023.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/b36cac60-edfe-4516-ae6f-7e07330a083b/bfa6e9e5-fae9-4ea9-b913-d95466e4b0fe-master.m3u8https://video.igem.org/videos/embed/oa48xb5WGB4shFpnVFL3TV360202023-09-19T22:59:57.860ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oMzjMwbWVqtXWTPV8uq1tThttps://video.igem.org/lazy-static/thumbnails/41fe94d1-1f3d-4f59-a752-4cc2dae7a270.jpgCornell: ENERGEM (2023) - Project Promotion [English]**Title:** ENERGEM **Description:** Cornell iGEM’s 2023 team plans to manufacture 7-methylxanthine and paraxanthine (1,7- dimethylxanthine) from caffeine using synthetic biology and metabolic engineering with ENERGEM: ENgineering Enzyme Reactions to GEnerate Methylxanthines. Methylxanthines are an important and versatile class of compounds that can be used for various medical applications, including eye diseases, cardiovascular disease, and respiratory illnesses. [Wiki](https://2022.igem.wiki/cornell)https://static.igem.org/peertube/streaming-playlists/hls/b8860e86-66fc-4faa-a804-5f45f1157af1/7c7c73d8-827f-4021-8aa2-c934cb53ebec-master.m3u8https://video.igem.org/videos/embed/oMzjMwbWVqtXWTPV8uq1tT12001172023-09-20T17:05:57.357ZYES2023 Project PromotionsNOhttps://video.igem.org/w/njNWPDSZuS326uMY4nB8aphttps://video.igem.org/lazy-static/thumbnails/99072c0c-834d-4bf7-8d75-bf4b0ed1a5fe.jpgQdai: Nylon Cycle (2023) - Project Promotion [English]**Title:** Nylon Cycle **Description:** we aimed to develop a method for degrading nylon using E coli.  The large amount of clothing waste generated around the world is a problem all over the world, especially in developing countries. Our research will be useful in developing a cheap and easy way torecycle clothes. [Wiki](https://2022.igem.wiki/qdai)https://static.igem.org/peertube/streaming-playlists/hls/acb03b10-f118-41c9-8c65-53ba6bfb8d45/a11c7aa2-4b1a-43d0-832c-084b4ef7c26b-master.m3u8https://video.igem.org/videos/embed/njNWPDSZuS326uMY4nB8ap1170452023-09-20T17:14:44.447ZYES2023 Project PromotionsNOhttps://video.igem.org/w/vu7VZWRPSvkjq9dVwyaWSuhttps://video.igem.org/lazy-static/thumbnails/d4119bab-e8fc-43cd-9a36-9d5fbdee9d1d.jpgUNILA-LatAm: Mhetyguá (2023) - Project Promotion [English]**Title:** Mhetyguá **Description:** The growing use of plastics by society has become increasingly worrying as it intensifies the release and contamination of various rivers and tributaries by microplastics. With this in mind, our team developed the MHETYGUÁ project, the main objective of which is to demonstrate the potential for microalgae to degrade microplastics by modifying the microalgae Chlamydomonas reinhardtii, through the insertion and production of the enzymes Fast-PETase and MHETase. [Wiki](https://2022.igem.wiki/unila-latam)https://static.igem.org/peertube/streaming-playlists/hls/eec61e3b-3f0e-470f-972f-f2694a15b870/1a72938f-6100-47de-b40a-ac83a9c306be-master.m3u8https://video.igem.org/videos/embed/vu7VZWRPSvkjq9dVwyaWSu1200952023-09-20T17:48:11.203ZYES2023 Project PromotionsNOhttps://video.igem.org/w/qkgPw4u9R829723aZcAYdPhttps://video.igem.org/lazy-static/thumbnails/e00ee5e5-343a-4ef9-b19b-493179ba5330.jpgUConn: Estro (2023) - Project Promotion [English]**Title:** Estro **Description:** Project Estro is dedicated to the goal of engineering a microorganism that is capable of degrading the estrogen hormone 17α-Ethinylestradiol in aquatic environments. [Wiki](https://2022.igem.wiki/uconn)https://static.igem.org/peertube/streaming-playlists/hls/c50c355c-d628-476b-a38b-838d32f8fea7/0d95eb0c-5a55-470b-9d9b-34cc59a4243f-master.m3u8https://video.igem.org/videos/embed/qkgPw4u9R829723aZcAYdP1180462023-09-20T17:53:32.901ZYES2023 Project PromotionsNOhttps://video.igem.org/w/jmykAFDanrewaLBRxFvrDmhttps://video.igem.org/lazy-static/thumbnails/7482aad1-8669-4787-89ca-6b4d53244cf6.jpgCCU-Taiwan: CTC FAST, is going to change the century fast (2023) - Project Promotion [English]**Title:** CTC FAST, is going to change the century fast **Description:** The protagonist of this story unfortunately suffers from lung cancer and is gradually metastasizing. Despite regular check-ups, there is still a high chance of death. At the last moment, they hope to change the screening method and get different results. We understand the limitations of current technology, so we hope CTC FAST can make a difference. [Wiki](https://2022.igem.wiki/ccu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/94a34cda-fdc4-46c8-b3b1-54030586cb12/ab494108-9a18-4101-b598-d4da83fc978c-master.m3u8https://video.igem.org/videos/embed/jmykAFDanrewaLBRxFvrDm12001162023-09-20T18:17:05.624ZYES2023 Project PromotionsNOhttps://video.igem.org/w/wq2cLUrHVhUr5ns6z4iPpshttps://video.igem.org/lazy-static/thumbnails/dade2a39-b202-4d3f-ba31-468c544eeb8a.jpgWVHS-SanDiego: PETase and MHETase to break down microplastics and byproducts. (2023) - Project Pr...**Title:** PETase and MHETase to break down microplastics and byproducts. **Description:** There is an abundant amount of microplastics in our oceans, specifically PET plastics which damage marine life, as well as human life. By transforming the aquatic bacteria Alteromonas using PETase and MHETase, we hope to create an organism that can degrade these harmful plastics, making our oceans safer for all. [Wiki](https://2022.igem.wiki/wvhs-sandiego)https://static.igem.org/peertube/streaming-playlists/hls/f64cc06c-97d1-47b8-b41d-2edf791f2da4/5807a7d5-f43e-4884-a6b5-5771b87344e2-master.m3u8https://video.igem.org/videos/embed/wq2cLUrHVhUr5ns6z4iPps11201232023-09-20T20:06:16.768ZYES2023 Project PromotionsNOhttps://video.igem.org/w/77BUzjHoRVFyTKZgpjhcyEhttps://video.igem.org/lazy-static/thumbnails/46508ef3-7263-45c7-a376-7aba4c95a366.jpgChalmers-Gothenburg: SoDoVi - A cell factory (2023) - Project Promotion [English]**Title:** SoDoVi - A cell factory **Description:** Our goal is to create a sourdough culture that can produce essential vitamins. We have chosen to focus on vitamins B12 and A. Our end product should be a cell factory that is easy to take care of, cheap to maintain and can be sustained on easy-to-access products such as flour. The cell factory's product will be a nutritional dough which can help tto decrease the reliance on supplements. [Wiki](https://2022.igem.wiki/chalmers-gothenburg)https://static.igem.org/peertube/streaming-playlists/hls/31836c37-6994-462e-803f-4ad8a52b4c32/4dfe2395-c4cd-43ec-9ab7-16cdf1ee3482-master.m3u8https://video.igem.org/videos/embed/77BUzjHoRVFyTKZgpjhcyE1200902023-09-20T20:08:43.983ZYES2023 Project PromotionsNOhttps://video.igem.org/w/wjFsUUsonRLi3nCTvgP6B2https://video.igem.org/lazy-static/thumbnails/97a1a933-85d1-45c1-8669-485a0f72e2ef.jpgHamburg: transFERRITIN - A ferritin-based drug delivery system to combat antibio... (2023) - Proj...**Title:** transFERRITIN - A ferritin-based drug delivery system to combat antibiotic resistance **Description:** Antibiotic infections caused by multi-resistant bacteria will become a significant issue in the future as a result of excessive and incorrect antibiotic use. Currently, antibiotics are prescribed that not only target pathogens but also affect beneficial bacteria in our microbiome. With "transFERRITIN", we are developing an innovative drug delivery system based on a CPP-ferritin container. We hereby provide a strategy to specifically penetrate resistant infections by utilizing the transport mechanism. [Wiki](https://2022.igem.wiki/hamburg)https://static.igem.org/peertube/streaming-playlists/hls/f58dde43-5c3c-4837-822c-96cb06a8a3cb/f429e958-2941-45bc-b1d2-64c7824324cc-master.m3u8https://video.igem.org/videos/embed/wjFsUUsonRLi3nCTvgP6B212002052023-09-20T20:16:40.224ZYES2023 Project PromotionsNOhttps://video.igem.org/w/s2oJ5EubQuP27V2FZxdQvWhttps://video.igem.org/lazy-static/thumbnails/744c1726-e15d-4288-8c8f-472040a05edc.jpgTongji-China: Plink:A High-precision Quantitative Detection System Based on High... (2023) - Proj...**Title:** Plink:A High-precision Quantitative Detection System Based on High Conductivity Pilus **Description:** This year, Tongji-China aims to pioneer a fast, simple, economical, sensitive, and portable real-time quantitative antibody detection system. Our project is inspired by a unique biomaterial: Electrically conductive pili (e-pili) derived from G. metallireducdens. This pili is currently the most conductive biomaterial discovered by humans, and its conductivity is highly sensitive to changes in surface charge distribution. We have analyzed the structure of this protein and performed innovative epitope tagging modifications on the pili, enabling the specific binding of the target substance to the pili's surface, thereby affecting the pili's conductivity. By detecting changes in conductivity, we achieve real-time quantitative detection of antibodies. [Wiki](https://2022.igem.wiki/tongji-china)https://static.igem.org/peertube/streaming-playlists/hls/d2bf5aa1-d15e-44c6-bfa0-f3d294cb0838/741d73c6-8ad2-42ce-9142-61b662ce679e-master.m3u8https://video.igem.org/videos/embed/s2oJ5EubQuP27V2FZxdQvW9701162023-09-21T00:17:08.021ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6kShx3ffS2WJmPxw9PDGLFhttps://video.igem.org/lazy-static/thumbnails/c09f87c3-1cfc-438c-b0ce-210d24de50e9.jpgIIT-Delhi: Remedix: Nature's Clean Up Crew (2023) - Project Promotion [English]**Title:** Remedix: Nature's Clean Up Crew **Description:** Remedix, the 2023 project of team iGEM IIT Delhi is a bioremediation effort which aims to genetically engineer E. coli for the large-scale production of the biosurfactant Lichenysin, the most effective chelator of cations, never before produced in a model organism. This biosurfactant will be used to efficiently form complexes with and recover heavy metals released into the environment as part of industrial discharge, which poses a serious health hazard. [Wiki](https://2022.igem.wiki/iit-delhi)https://static.igem.org/peertube/streaming-playlists/hls/2b43d070-863a-4a6f-a02b-84a29c8e1277/8e697aef-e277-4ca0-8d83-18a51001242f-master.m3u8https://video.igem.org/videos/embed/6kShx3ffS2WJmPxw9PDGLF11901642023-09-21T01:24:23.235ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oP6TDCzNyVQVXWBvAidHQGhttps://video.igem.org/lazy-static/thumbnails/1723a6e6-37e5-494c-9334-e5f4b8261d09.jpgNYCU-Taipei: VigilaGuard (2023) - Project Promotion [English]**Title:** VigilaGuard **Description:** NYCU-Taipei presents you Vigilaguard, a rapid-reaction bio-device. VigilaGuard can detect inflammatory biomarkers with engineered bacteria. When it detects abnormal levels of inflammatory biomarkers, it will send a notification to our mobile app which can give customers personalized health insights. It can further supply hesperetin, an antioxidant that helps relieve inflammation. Our product combines early diagnosis, remote monitoring, and hesperetin supplement, meeting the market need for preventative health management. [Wiki](https://2022.igem.wiki/nycu-taipei)https://static.igem.org/peertube/streaming-playlists/hls/b8bca34a-9da8-4c82-aa5a-a4fc7eeb11bc/466807b0-b90b-49d9-af7a-8cb907f87102-master.m3u8https://video.igem.org/videos/embed/oP6TDCzNyVQVXWBvAidHQG1160842023-09-21T02:22:25.896ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4TvS4C6nUkvY3vV4T825Rihttps://video.igem.org/lazy-static/thumbnails/64f458a7-3508-4816-a056-105b79d723b3.jpgThailand-RIS: Thailand RIS: Powering up Plant Defenses (2023) - Project Promotion [English]**Title:** Thailand RIS: Powering up Plant Defenses **Description:** Thailand is heavily dependent on its agricultural industry. An issue that Thai farmers often face is the degradation of their crop harvest as a result of extreme environmental conditions that cause stress to their plants—posing a threat to their livelihoods and causing adverse economic consequences. The Thailand-RIS team aims to alleviate this issue by modifying the Glutamate-cysteine ligase (GCL) gene which plays an important role in stress response via regulating the production of Glutathione (GSH). Thailand-RIS seeks to remove Chloroplast transit peptides and replace them with a Mitochondrial transit sequence in order to bypass the transport process and enable the production of GSH directly in the mitochondria. Since the mitochondria are the primary site of reactive oxygen species production, this modification holds the potential to make the production of GCL more efficient and abundant; thus increasing a plant’s resistance to stress. Imagine cooking food in the kitchen and the bedroom, would it be faster for you to cook a meal in the kitchen or the bedroom? Just like how it would be more efficient to cook in the kitchen since the ingredients and tools are already available, it is faster for plants to produce GSH directly in the Mitochondria (done through changing GCL’s transit peptide from a cytosol one to a Mitochondrial one) since oxidative reductive species helps the production of GSH. [Wiki](https://2022.igem.wiki/thailand-ris)https://static.igem.org/peertube/streaming-playlists/hls/1f7cc087-7d9d-4442-aad9-f2ddad466c73/4f22b50e-c191-4998-8562-018ffebd5bdb-master.m3u8https://video.igem.org/videos/embed/4TvS4C6nUkvY3vV4T825Ri11903612023-09-21T05:08:44.888ZYES2023 Project PromotionsNOhttps://video.igem.org/w/eCxVsWLYdjpq6D3GBsEZG2https://video.igem.org/lazy-static/thumbnails/223cf202-f333-4c6e-94f1-d5a6b21493da.jpgMSP-Maastricht: Dual-Bacterial System for limestone monument restoration (2023) - Project Promoti...**Title:** Dual-Bacterial System for limestone monument restoration **Description:** Limestone is a recurring building material in many of the most iconic monuments in the world. Due to climate change, this rock is getting degraded faster than ever. This is why, at Sublimestone, we decided to tackle this problem using synthetic biology. Our dual set of bacteria uses the innovative technology of DNA origami to fill in cracks in limestone structures. [Wiki](https://2022.igem.wiki/msp-maastricht)https://static.igem.org/peertube/streaming-playlists/hls/6e614035-119f-4593-bf77-7fe50ef58e85/ebc2ae83-4009-4600-90df-fc82c9e2cd90-master.m3u8https://video.igem.org/videos/embed/eCxVsWLYdjpq6D3GBsEZG211703422023-09-21T11:54:24.929ZYES2023 Project PromotionsNOhttps://video.igem.org/w/hC85HiuPE1xVm4hzb4X3pnhttps://video.igem.org/lazy-static/thumbnails/9d84db61-312d-4a64-ad1e-da0bcb23a7b5.jpgiGEM EvoluTech PA (2023) - Project PromotioniGEM EvoluTech PA (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/869d5bb6-54f9-4dd3-8a7d-ec0c4d584adb/44e0b04a-dbef-43a9-b04d-104ed621d6b1-master.m3u8https://video.igem.org/videos/embed/hC85HiuPE1xVm4hzb4X3pn1210102023-09-21T13:42:15.978ZYESiGEM Design LeagueNOhttps://video.igem.org/w/r9KDT7eLc92x9bjdC6xsRphttps://video.igem.org/lazy-static/thumbnails/edb63765-9fd2-43c5-8a50-30b4d41de4ff.jpgBiowulf (2023) - Project PromotionBiowulf (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/cbad51a0-58e2-4fea-84b8-b630caee5d81/39512c29-ca95-440b-8055-03271f5cb201-master.m3u8https://video.igem.org/videos/embed/r9KDT7eLc92x9bjdC6xsRp1180112023-09-21T13:45:06.975ZYESiGEM Design LeagueNOhttps://video.igem.org/w/bhBuebSX8tKcDairbwbQunhttps://video.igem.org/lazy-static/thumbnails/181805b1-05f8-43c7-a272-eb24c126d7e7.jpgAylluGene (2023) - Project PromotionAylluGene (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/534d2807-639f-4b4f-ae1b-155168d1909d/3f2401ca-e3e4-4801-9fc5-f1154c08b0ed-master.m3u8https://video.igem.org/videos/embed/bhBuebSX8tKcDairbwbQun120072023-09-21T13:45:46.331ZYESiGEM Design LeagueNOhttps://video.igem.org/w/jQ1b2zFHrDDK1aHyT81mT6https://video.igem.org/lazy-static/thumbnails/bdde4e1e-ec10-48c9-86b3-660676dfa45e.jpgBiostyvia (2023) - Project PromotionBiostyvia (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/98784daa-84dd-4638-b64f-bdadd9c54033/35d0413d-d67a-4cab-869c-429b33dcd87c-master.m3u8https://video.igem.org/videos/embed/jQ1b2zFHrDDK1aHyT81mT693052023-09-21T13:49:18.857ZYESiGEM Design LeagueNOhttps://video.igem.org/w/vmSTriaYjuzq9KTDm3mwkghttps://video.igem.org/lazy-static/thumbnails/19bedefe-9342-4cc5-86d0-c7c748a0006d.jpgBioTecCCM (2023) - Project PromotionBioTecCCM (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/edc341b4-a909-4fd3-b6cb-aa51b9bb0615/366f7122-7676-4cae-baa3-107f0a513fb3-master.m3u8https://video.igem.org/videos/embed/vmSTriaYjuzq9KTDm3mwkg1210172023-09-21T13:53:22.657ZYESiGEM Design LeagueNOhttps://video.igem.org/w/rCqsZ4gdfLdB3ZPtmPTZTphttps://video.igem.org/lazy-static/thumbnails/086cb41c-5b1c-49a7-9d87-312b3d7a5e82.jpgAix-Marseille: Fight against soil drought (2023) - Project Promotion [English]**Title:** Fight against soil drought **Description:** In 2023, France faced its longest drought in decades, causing severe soil dryness and agricultural challenges. Aix-Marseille University's Terralgi project tackles this by using synthetic biology to produce alginate, a natural polymer that retains soil moisture. Our three-step approach involves optimizing alginate production in Pseudomonas putida, improving alginate bead fabrication for ease of use by farmers and industrialists, and utilizing industrial by-products to create a safe, biodegradable, low-cost solution with a positive ecological impact. [Wiki](https://2022.igem.wiki/aix-marseille)https://static.igem.org/peertube/streaming-playlists/hls/cf8a51c7-f82f-441a-b8f0-8ade1db73451/7ce540e6-2c0e-4cb4-b646-58f94e4194c4-master.m3u8https://video.igem.org/videos/embed/rCqsZ4gdfLdB3ZPtmPTZTp12001512023-09-21T22:22:52.245ZYES2023 Project PromotionsNOhttps://video.igem.org/w/5zAAcBeeDA6LDMPbqiAQZThttps://video.igem.org/lazy-static/thumbnails/305b9d77-4a34-430a-b5f1-116163c88a7e.jpgXMU-China: Animation (2023) [English]for home wiki link is follow https://2023.igem.wiki/xmu-china/https://static.igem.org/peertube/streaming-playlists/hls/25156a6a-3f2d-427f-87e8-ae79a477f53d/1bdef366-fd6f-4342-a9c0-dedcd722ceb0-master.m3u8https://video.igem.org/videos/embed/5zAAcBeeDA6LDMPbqiAQZT100322023-09-22T03:24:06.002ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mwhKzwifqemCQVrs8fa2fUhttps://video.igem.org/lazy-static/thumbnails/6adc2126-4d98-49cc-a556-3af3e86f0e59.jpgIIT-Madras: Synthopedia - A Library of Synthetic Ribosome Binding Sites (2023) - Project Promotio...**Title:** Synthopedia - A Library of Synthetic Ribosome Binding Sites **Description:** Our project entails the construction of a library of Ribosome Binding Sites (RBS) in L. lactis. The ability to fine-tune gene expression forms a cornerstone for the operation of genetic circuits. This optimization has not been carried out in unconventional chassis. Creating this well-characterized library would enable the rational engineering of this bacterium towards increased yield of recombinant products. We have also created a web tool to generate RBS sequences for optimal gene expression. [Wiki](https://2022.igem.wiki/iit-madras)https://static.igem.org/peertube/streaming-playlists/hls/a63168e0-f43d-4d4b-8fcd-c50793dc882c/b26a05e0-16d0-4993-8d01-c84a15e7e58f-master.m3u8https://video.igem.org/videos/embed/mwhKzwifqemCQVrs8fa2fU11601672023-09-22T05:29:36.247ZYES2023 Project PromotionsNOhttps://video.igem.org/w/oc6v82K6Cu7hug1CZndmrwhttps://video.igem.org/lazy-static/thumbnails/23ea352e-c50b-429a-98bc-bd6043102433.jpgUBC-Okanagan: ImmuniBee (2023) - Project Promotion [English]**Title:** ImmuniBee **Description:** The global decline of honey bee populations is a critical issue with detrimental effects on agriculture and the environment. The presence of the Deformed Wing Virus (DWV) is a major contributor to this decline, causing deformed wings in bees and leading to Colony Collapse Disorder. To address this urgent problem, our goal is to develop the world's first treatment for bee viruses by utilizing our understanding of bee immune systems. We aim to protect these vital pollinators, preserve ecosystems, and enhance global food security. We will express the DWV capsid protein VP3 on the surface of Bacillus subtilis cells by fusing it to spore proteins on vegetative cells to explore bee immune responses and potentially develop a vaccination system against viruses. This endeavor has the potential to make a significant impact on the protection and well-being of bees. [Wiki](https://2022.igem.wiki/ubc-okanagan)https://static.igem.org/peertube/streaming-playlists/hls/b3b59f6e-0e52-417e-ade2-e900bab34168/d3a1ed8e-81e5-4ac1-a529-9aaf7f9a1847-master.m3u8https://video.igem.org/videos/embed/oc6v82K6Cu7hug1CZndmrw12003312023-09-22T05:48:42.774ZYES2023 Project PromotionsNOhttps://video.igem.org/w/4kxXnJPJD1jeQe1ot27KtQhttps://video.igem.org/lazy-static/thumbnails/c132c158-0d8f-49cc-b154-882ee2d62d62.jpgNU-Kazakhstan: CellCare: a living bacteria-mediated carcinoma tumor therapy (2023) - Project Prom...**Title:** CellCare: a living bacteria-mediated carcinoma tumor therapy **Description:** We present CellCare, a smart, localized, and controlled anti-cancer system that uses bacteriotherapy to create a drug release machinery injected directly to the solid carcinoma tumors and delivered by a crystalline hydrogel. By engineering a non-pathogenic strain of E.coli, a pore-forming protein Colicin E1 is released on the cancer cells in response to a high lactate presence in a tumor microenvironment. For the prevention of a harsh immune response, bacteria are encapsulated into a biocompatible hydrogel. [Wiki](https://2022.igem.wiki/nu-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/1b063d8b-f640-4155-bff3-5598c45807ba/8d23f355-4a97-4562-9776-fd7094f3e03b-master.m3u8https://video.igem.org/videos/embed/4kxXnJPJD1jeQe1ot27KtQ11802492023-09-22T05:55:19.580ZYES2023 Project PromotionsNOhttps://video.igem.org/w/3HVcxzPhempWBr7Vg7ftCHhttps://video.igem.org/lazy-static/thumbnails/cb97140c-9885-46d4-ac0a-fc66101944f3.jpgUBC-Vancouver: PILOT: Platformed Inteins: a Linked Orthogonal Toolkit (2023) - Project Promotion ...**Title:** PILOT: Platformed Inteins: a Linked Orthogonal Toolkit **Description:** We are excited to present PILOT - Platforms Inteins: A linked Orthogonal Toolkit a synthetic biology based tool aimed at developing an orthogonal, intein based platform for protein expression. By utilising intein protein technology, a natural self cleaving post translational modification endogenous to a subset of all domains of life, we created a modular CFPS production platform allowing simultaneous biosynthesis, extraction, and purification of proteins. By utilizing inverted inner membrane vesicles (IMVs), complemented by the use of cheap and energy dense carbon sources such as methanol, we aim to increase the efficiency of CFPS energy generation. Thus the intein mediated modularity and the creation of an optimized CFPS reaction has the potential to accelerate the research and development pipeline of biologics. [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/160c8e95-4afb-4db2-80c9-c6ede8fbad4d/253f720b-debd-47ee-824b-19cf4971bc77-master.m3u8https://video.igem.org/videos/embed/3HVcxzPhempWBr7Vg7ftCH1200442023-09-22T07:15:57.842ZYES2023 Project PromotionsNOhttps://video.igem.org/w/6TVka2HSMAJHWVu5ERuLuuhttps://video.igem.org/lazy-static/thumbnails/2f5b0f8b-8930-44b6-b18a-f1c528a69cc0.jpgUBC-Vancouver: PILOT: Platformed Inteins: a Linked Orthogonal Toolkit (2023) - Project Promotion ...**Title:** PILOT: Platformed Inteins: a Linked Orthogonal Toolkit **Description:** We are excited to present PILOT - Platforms Inteins: A linked Orthogonal Toolkit a synthetic biology based tool aimed at developing an orthogonal, intein based platform for protein expression. By utilising intein protein technology, a natural self cleaving post translational modification endogenous to a subset of all domains of life, we created a modular CFPS production platform allowing simultaneous biosynthesis, extraction, and purification of proteins. By utilizing inverted inner membrane vesicles (IMVs), complemented by the use of cheap and energy dense carbon sources such as methanol, we aim to increase the efficiency of CFPS energy generation. Thus the intein mediated modularity and the creation of an optimized CFPS reaction has the potential to accelerate the research and development pipeline of biologics. [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/2fbd7dd4-0c0b-4d73-bd6c-2393519a1ed4/e6d14484-b2c8-4283-beee-f23466544840-master.m3u8https://video.igem.org/videos/embed/6TVka2HSMAJHWVu5ERuLuu12001132023-09-22T07:51:24.862ZYES2023 Project PromotionsNOhttps://video.igem.org/w/mX2x4VM38ruFqq5jGMHpnuhttps://video.igem.org/lazy-static/thumbnails/55bd5bfc-80d5-4142-b548-29907da46506.jpgBITSPilani-Goa-India: CARkinos - A better way to CAR T (2023) - Project Promotion [English]**Title:** CARkinos - A better way to CAR T **Description:** Lung Cancer is a cancer with a very high morbidity rate. We, at iGEM BITS Goa, seek to change that narrative. Our project aims to modify existing CAR T-cell therapy and make it more efficient for solid tumors like Lung Cancer. Existing therapy is unable to break down the tumor mass, so our project aims to act on the adhesion molecules that hold the tumor together, thus improving the efficiency of the therapy. [Wiki](https://2022.igem.wiki/bitspilani-goa-india)https://static.igem.org/peertube/streaming-playlists/hls/a9a5a07e-576d-4593-984e-a17043383ed2/4c783678-b72b-485a-964f-4716a32bc22e-master.m3u8https://video.igem.org/videos/embed/mX2x4VM38ruFqq5jGMHpnu12003232023-09-22T09:01:33.297ZYES2023 Project PromotionsNOhttps://video.igem.org/w/sCF1tdMbxcFHmUgeV3THxAhttps://video.igem.org/lazy-static/thumbnails/d8bcd3c7-6005-4d96-9dd6-7b96578ddbb6.jpgCNPEM.Brazil (2023) - Project PromotionCNPEM.Brazil (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/d7ac6ba3-f1ae-4b00-a128-b891edff02e4/98f65aa4-bf3a-4d4d-8f7a-f6149cb3a2a2-master.m3u8https://video.igem.org/videos/embed/sCF1tdMbxcFHmUgeV3THxA1200262023-09-22T12:17:18.988ZYESiGEM Design LeagueNOhttps://video.igem.org/w/k6F2FfhWC5zmuFoBpgzbdbhttps://video.igem.org/lazy-static/thumbnails/5b553259-aa2a-48cb-9656-de3b46d317da.jpgFCB UANL (2023) - Project PromotionFCB UANL (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/9aa867e3-1812-4903-97b9-2194a3d9b362/31160644-4779-416f-b91a-811093166434-master.m3u8https://video.igem.org/videos/embed/k6F2FfhWC5zmuFoBpgzbdb1200112023-09-22T12:21:04.662ZYESiGEM Design LeagueNOhttps://video.igem.org/w/gcJKSsgj7hme5HQTNDcwtdhttps://video.igem.org/lazy-static/thumbnails/47eba619-50cb-4bee-bee3-42fc2de0ca51.jpgGenesys (2023) - Project PromotionGenesys (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/7b1c9c65-7b57-4ab2-9b71-52715f1371ea/e2a6650f-bd8d-43de-b11a-7b673023b68c-master.m3u8https://video.igem.org/videos/embed/gcJKSsgj7hme5HQTNDcwtd126092023-09-22T12:28:39.102ZYESiGEM Design LeagueNOhttps://video.igem.org/w/543kuDUaKx682gyHwSopJnhttps://video.igem.org/lazy-static/thumbnails/04783877-45ff-4f77-8af3-4fdf76ab12be.jpgHS2 UANL (2023) - Project PromotionHS2 UANL (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/20d139c2-916a-43c3-9a95-49e87b137a65/63a5a734-3670-4b24-81f0-0e2b15e0f781-master.m3u8https://video.igem.org/videos/embed/543kuDUaKx682gyHwSopJn1190122023-09-22T12:29:06.993ZYESiGEM Design LeagueNOhttps://video.igem.org/w/xzSdwCy6f97Bo2U7N2bwZRhttps://video.igem.org/lazy-static/thumbnails/0e3ac645-7705-4aef-93bf-e71f32fd9016.jpgiGEM Biomakers (2023) - Project PromotioniGEM Biomakers (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/ffc5ca21-f036-475d-a65b-4fe5fb212d33/792272c5-22b3-4afb-8a76-9443edc9bb73-master.m3u8https://video.igem.org/videos/embed/xzSdwCy6f97Bo2U7N2bwZR121042023-09-22T12:30:44.664ZYESiGEM Design LeagueNOhttps://video.igem.org/w/sMMcPxsyrmWhXC2RJipxcUhttps://video.igem.org/lazy-static/thumbnails/d0f8e79f-5d71-4276-a23b-68a8107f10cb.jpgiGEM Biotech Ec (2023) - Project PromotioniGEM Biotech Ec (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/d8f1eec1-168b-4092-a904-6383e81fc4b6/3c29d2e6-f8bd-4e98-b1bb-1fdaa5dc3cae-master.m3u8https://video.igem.org/videos/embed/sMMcPxsyrmWhXC2RJipxcU1200132023-09-22T12:33:04.673ZYESiGEM Design LeagueNOhttps://video.igem.org/w/1bsiHK8ifHGZJMdZEtw7hBhttps://video.igem.org/lazy-static/thumbnails/4bdba76d-4b87-4b47-b7d0-cb474283d581.jpgiGEM CSB (2023) - Project PromotioniGEM CSB (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/0175a628-023a-47ea-aa96-5e6f851d80fb/e9f05147-6a11-4f82-a698-66df41036668-master.m3u8https://video.igem.org/videos/embed/1bsiHK8ifHGZJMdZEtw7hB120082023-09-22T12:36:23.389ZYESiGEM Design LeagueNOhttps://video.igem.org/w/kPWaGJHPBU3poSwmiustgghttps://video.igem.org/lazy-static/thumbnails/b585a8f8-c6ba-47da-8e46-e1d73e6a9643.jpgiGEM Eco-Soil CR (2023) - Project PromotioniGEM Eco-Soil CR (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/a08ef937-8480-49d9-8a18-8185321d9db1/cc3e76f8-4b11-4960-a02e-a35196d8530d-master.m3u8https://video.igem.org/videos/embed/kPWaGJHPBU3poSwmiustgg1170102023-09-22T12:42:21.777ZYESiGEM Design LeagueNOhttps://video.igem.org/w/owGsvkRMsYHF632GyN9QC9https://video.igem.org/lazy-static/thumbnails/2585f07a-2163-4a9f-b966-3b54cbe66566.jpgiGEM Tec CEM (2023) - Project PromotioniGEM Tec CEM (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/b6724bcf-3b30-4104-9159-099d3f484990/a0613d0e-9f9c-4237-af84-74362d4e1df4-master.m3u8https://video.igem.org/videos/embed/owGsvkRMsYHF632GyN9QC91200112023-09-22T12:43:28.061ZYESiGEM Design LeagueNOhttps://video.igem.org/w/nDbg1AWrv1VBFsAkE6bJ5yhttps://video.igem.org/lazy-static/thumbnails/8a49ed78-d387-4160-9ad8-6a81f89ccbf7.jpgiGEM Tec Qro (2023) - Project PromotioniGEM Tec Qro (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/af40c0e9-4ab4-4e9f-a2a3-fe4d24d6c550/1ce9ee5f-e8de-4f8c-b4ec-5693bf54b247-master.m3u8https://video.igem.org/videos/embed/nDbg1AWrv1VBFsAkE6bJ5y120052023-09-22T12:46:27.363ZYESiGEM Design LeagueNOhttps://video.igem.org/w/fw5QJG14c26aEEzY3MYcVwhttps://video.igem.org/lazy-static/thumbnails/bd91d5d1-9557-46fc-a875-46928fc5e366.jpgIktan Kaan'Ek (2023) - Project PromotionIktan Kaan'Ek (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/75933cbd-7932-4d16-93bf-ddb0e118c2fc/025de911-9a2d-421c-99cd-b1e5d6b3b5fe-master.m3u8https://video.igem.org/videos/embed/fw5QJG14c26aEEzY3MYcVw128082023-09-22T12:48:02.267ZYESiGEM Design LeagueNOhttps://video.igem.org/w/dP65REDankeAgbkVoG2Nbbhttps://video.igem.org/lazy-static/thumbnails/e95bf9fa-c59b-4539-91c6-18910b60addd.jpgNeuroSynth (2023) - Project PromotionNeuroSynth (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/67c0c10a-b324-45f0-af80-6d4efb7ce1ee/6d10f54c-fb09-4de1-868b-852480687cad-master.m3u8https://video.igem.org/videos/embed/dP65REDankeAgbkVoG2Nbb120062023-09-22T12:48:36.382ZYESiGEM Design LeagueNOhttps://video.igem.org/w/tGz3CMb2pG4k25XtTUxCDChttps://video.igem.org/lazy-static/thumbnails/0fab77de-7acb-40d0-ac90-ffa6fbd36193.jpgPantera iGEM (2023) - Project PromotionPantera iGEM (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/e050dc0d-7c81-4891-ae97-33a07fe16ece/5abc5d77-e82b-4031-8631-ed04ab6de8ac-master.m3u8https://video.igem.org/videos/embed/tGz3CMb2pG4k25XtTUxCDC1200122023-09-22T12:53:14.800ZYESiGEM Design LeagueNOhttps://video.igem.org/w/hRDaiDtdXhBUtXTivJ4SFUhttps://video.igem.org/lazy-static/thumbnails/5cb5c7ed-9843-41df-90db-54923d7c99d5.jpgSynBio UFG (2023) - Project PromotionSynBio UFG (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/88809070-2307-400c-bcd8-d91a7e749f0a/34aa9f2d-97cc-463d-b71b-c513e784c1a2-master.m3u8https://video.igem.org/videos/embed/hRDaiDtdXhBUtXTivJ4SFU1210162023-09-22T12:58:33.899ZYESiGEM Design LeagueNOhttps://video.igem.org/w/4WzLX6MDEMvsDsAskwCj14https://video.igem.org/lazy-static/thumbnails/a4ed675f-0d37-44fa-bfd7-17109d71b22c.jpgSynthEIA (2023) - Project PromotionSynthEIA (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/1fea64e6-91fb-47ab-bbc2-13f80cce606b/84ba757c-d6e9-4d0f-b57c-6211e354cd1f-master.m3u8https://video.igem.org/videos/embed/4WzLX6MDEMvsDsAskwCj141200162023-09-22T13:00:24.831ZYESiGEM Design LeagueNOhttps://video.igem.org/w/tEdDMVKaHC9QRRxXib3tUchttps://video.igem.org/lazy-static/thumbnails/83b94fc6-668c-412d-82a7-5e4df1e87780.jpgTec Monterrey (2023) - Project PromotionTec Monterrey (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/dffccdcc-103b-4a07-986f-2f40e80b5d6f/1c5a5d7e-768c-4a5e-9ebe-fba96c4da23e-master.m3u8https://video.igem.org/videos/embed/tEdDMVKaHC9QRRxXib3tUc1170142023-09-22T13:03:23.729ZYESiGEM Design LeagueNOhttps://video.igem.org/w/5RvzZjmUvFDGU7SNihSaz8https://video.igem.org/lazy-static/thumbnails/353c6604-5c85-4e36-9987-5bb1b4b58537.jpgTheobroma (2023) - Project PromotionTheobroma (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/274e3b7e-1482-4a5d-a541-2f52f0bf6cb5/b75237ee-0b8a-4045-9bc6-e6178a620098-master.m3u8https://video.igem.org/videos/embed/5RvzZjmUvFDGU7SNihSaz8120072023-09-22T13:03:56.643ZYESiGEM Design LeagueNOhttps://video.igem.org/w/fkaXrsrJ8LtoRajAg3qjoqhttps://video.igem.org/lazy-static/thumbnails/f22e14df-dfc5-44f8-9c46-8f6a3706056f.jpgUAM (2023) - Project PromotionUAM (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/740d3558-22f0-43d6-ba87-50e2cbc2685c/0d3b48ad-e30d-4830-b919-59eaac196ce8-master.m3u8https://video.igem.org/videos/embed/fkaXrsrJ8LtoRajAg3qjoq1120142023-09-22T13:06:45.200ZYESiGEM Design LeagueNOhttps://video.igem.org/w/6s5qVbM9KNpfSTL9JU9bM3https://video.igem.org/lazy-static/thumbnails/825b2d47-3fda-489b-a562-83afa795b67d.jpgOxford: Bac2Glow (2023) - Project Promotion [English]**Title:** Bac2Glow **Description:** Our project is to develop a pathogen detection biosensor. Our biosensor uses the power of computer vision to assess nanoparticle agglutination and optimizes several qualities including detection speed, operability, and affordability. We also anticipate a highly flexible and rapid R&D cycle, given the system being modular and having easily adjustable parameters. We are now focusing on applying the biosensor as a diagnostic tool for common water-dwelling pathogens, particularly in low-resource settings, yet the comparative advantages of the system certainly guarantee enormous potential in food safety, epidemiology, industrial routine quality control, etc., in the future. [Wiki](https://2022.igem.wiki/oxford)https://static.igem.org/peertube/streaming-playlists/hls/2c21c2db-6238-419b-8f47-03c8be5f895c/fdddbb7c-e7ca-440a-9dc2-f9f05746aab9-master.m3u8https://video.igem.org/videos/embed/6s5qVbM9KNpfSTL9JU9bM311505492023-09-22T13:07:42.526ZYES2023 Project PromotionsNOhttps://video.igem.org/w/bBE7DuXicctA2LFMbmZEBEhttps://video.igem.org/lazy-static/thumbnails/eb33c941-1779-4e99-a246-ad831c6656c5.jpgKorea-HS: Afamin-Wnt3a Conditioned Media (2023) - Project Promotion [English]**Title:** Afamin-Wnt3a Conditioned Media **Description:** Conventional meat production poses severe issues, including deforestation, animal cruelty, and excessive carbon emissions. Our project, the Afamin-Wnt3a conditioned media, addresses these challenges by accelerating bovine muscle cell growth, revolutionizing sustainable meat production. By combining Afamin and Wnt3a proteins, we've created an efficient conditioned media that enhances cell growth and differentiation, serving as a significant step towards a more responsible and sustainable future. [Wiki](https://2022.igem.wiki/korea-hs)https://static.igem.org/peertube/streaming-playlists/hls/55f5e852-2d6e-4b07-b0be-c03c18767494/7f10fff8-6c98-4d23-a1c8-669da3f64210-master.m3u8https://video.igem.org/videos/embed/bBE7DuXicctA2LFMbmZEBE11903442023-09-22T13:09:42.703ZYES2023 Project PromotionsNOhttps://video.igem.org/w/7xZeWDNpJCLWRZeuAp1qwzhttps://video.igem.org/lazy-static/thumbnails/7d4b3f38-c953-4e04-a7c1-028be639b572.jpgUDEA (2023) - Project PromotionUDEA (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/350e2a1a-b37f-4919-b012-7191f9bdb07d/3db4054d-6272-4042-8afe-7bb882a4f5ee-master.m3u8https://video.igem.org/videos/embed/7xZeWDNpJCLWRZeuAp1qwz1200132023-09-22T13:10:16.309ZYESiGEM Design LeagueNOhttps://video.igem.org/w/jbuFUT3SRFJfokd2e5CVSmhttps://video.igem.org/lazy-static/thumbnails/40347448-0835-403f-8df0-de9e5d7dea13.jpgUniversidad Andrés Bello (2023) - Project PromotionUniversidad Andrés Bello (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/933b9cff-4481-4a20-84f2-ba6abcd80a1c/371a0a79-62ca-4e01-a81f-107e743a7ac7-master.m3u8https://video.igem.org/videos/embed/jbuFUT3SRFJfokd2e5CVSm1210102023-09-22T13:11:10.693ZYESiGEM Design LeagueNOhttps://video.igem.org/w/fX3fgUjWcrENm3tEE2pxYdhttps://video.igem.org/lazy-static/thumbnails/6f80b205-c8a9-4482-9410-7248d3c55729.jpgUTPrimers (2023) - Project PromotionUTPrimers (2023) - Project Promotionhttps://static.igem.org/peertube/streaming-playlists/hls/790f3b98-ebb7-4cad-870c-40605d8d8b80/31a39ff7-b8e7-40ff-be8a-d405f88b193a-master.m3u8https://video.igem.org/videos/embed/fX3fgUjWcrENm3tEE2pxYd119052023-09-22T13:13:07.793ZYESiGEM Design LeagueNOhttps://video.igem.org/w/8qNYKcnZGPytWBy9ScuLBohttps://video.igem.org/lazy-static/thumbnails/fd46ed2a-9fbc-429a-a113-23acb61ee495.jpgMingdao: Abstract Animation (2023) [English]Biodegradable plastics, notably FDA-approved PCL, are emerging as eco-friendly choices. While PCL decomposes over 2-3 years, materials infused with PCL-degrading lipase (PCLase) are being explored to expedite this. However, the enzyme's efficacy is compromised during 100°C thermoforming. Mingdao iGEM's SpyRing technique cyclizes PCLase, enhancing its thermostability. This pioneering material marks a pivotal move towards environmental sustainability. Wiki: https://2023.igem.wiki/mingdao/ https://static.igem.org/peertube/streaming-playlists/hls/3c26c5c5-4aa1-45fd-a0d3-e8450b87cc84/78fff7cc-7609-478a-9d9d-5e1ec725dd39-master.m3u8https://video.igem.org/videos/embed/8qNYKcnZGPytWBy9ScuLBo1170222023-09-23T02:49:01.908ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dJZ2CSQPwLEARRnjVJAj2Thttps://video.igem.org/lazy-static/thumbnails/23af2041-160c-4c07-ad73-687fd9e6a272.jpgAix-Marseille: Let's make alginate (2023) [English]In this video, we show how to make alginate beadshttps://static.igem.org/peertube/streaming-playlists/hls/672e0c11-4d0c-442c-b182-af26a38c7505/a892ccb2-bf94-4e3c-b905-8368272a2c2e-master.m3u8https://video.igem.org/videos/embed/dJZ2CSQPwLEARRnjVJAj2T460142023-09-23T06:06:18.908ZwetlabalginateYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eNMyaYgeKSJJDu4myRh9ivhttps://video.igem.org/lazy-static/thumbnails/80f0eaef-fd6f-4248-87ef-ab16c2da692a.jpgTec-Chihuahua: HomeVideo (2023) [English]Video displaying on iGEM Tec-Chihuahua's home page. https://2023.igem.wiki/tec-chihuahua/https://static.igem.org/peertube/streaming-playlists/hls/6fcf170f-12c7-482d-9fe6-9fd27d2d5627/a1fae8f8-971e-4899-991d-9b3799cf7465-master.m3u8https://video.igem.org/videos/embed/eNMyaYgeKSJJDu4myRh9iv34052023-09-26T14:45:48.356ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sL7XGtNrFouLunBVzpgCULhttps://video.igem.org/lazy-static/thumbnails/b38de1b2-bd30-4a47-acd8-2d4e9671836b.jpgIITChicago: Homepage Animation (2023) [English]Video animation about blood veins in the homepage header.https://static.igem.org/peertube/streaming-playlists/hls/d8b69ed7-f11e-4fa6-993c-f99fb9ef5b2c/f7757961-e874-44aa-860d-014e7b9a4601-master.m3u8https://video.igem.org/videos/embed/sL7XGtNrFouLunBVzpgCUL200172023-09-26T17:10:44.937ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pD9Y28Rk22fiJeawLtxbCThttps://video.igem.org/lazy-static/thumbnails/e3f7a33c-1e92-4740-8e70-af0f4f859267.jpgiGEMx 2023 Launch - Cell Economics: The interplay between growth and gene expression in bacteriaKickstarting iGEMx, we hosted Prof. Jose Jimenez from Imperial College London! During the session, he delved into how synthetic biology is beautifully integrated into evolutionary and microbial biology. Lear more about iGEMx: https://community.igem.org/projects/igem-xhttps://static.igem.org/peertube/streaming-playlists/hls/bf723bec-46eb-459f-ac2e-391d8899fdcb/cc19723a-e93d-4b6b-bb8b-66a2accead1c-master.m3u8https://video.igem.org/videos/embed/pD9Y28Rk22fiJeawLtxbCT42130382023-09-27T21:52:41.807ZYESiGEM CommunityNOhttps://video.igem.org/w/kJ8BzxiyVArfyikLeBq1Hrhttps://video.igem.org/lazy-static/thumbnails/76e3a3b5-db57-4d9a-825b-19ebd768df2a.jpgNanjing-China: TitleFinal (2023)An animationhttps://static.igem.org/peertube/streaming-playlists/hls/9fbf9097-c1b0-487c-bb20-00cf7bc7aaf3/1ac10d66-58f2-4a2b-b2a7-741b2c6939de-master.m3u8https://video.igem.org/videos/embed/kJ8BzxiyVArfyikLeBq1Hr100102023-09-28T08:40:24.961ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rYGQpNSwD2qvCYrDTMvjQGhttps://video.igem.org/lazy-static/thumbnails/cc37d118-2646-4156-bab5-9fc7d12faf0f.jpgNJU-China: future1 (2023) [English]NJU-China: future1 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/d25f486a-8357-4992-9cd2-d346c18efa88/5737fa3c-8742-4fe8-89ea-a40e3c184cde-master.m3u8https://video.igem.org/videos/embed/rYGQpNSwD2qvCYrDTMvjQG2032023-09-30T04:29:36.350ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xw195ixMh9D3DH7PNsAnFVhttps://video.igem.org/lazy-static/thumbnails/0970db3d-004e-43de-80b4-a06a4c1069ec.jpgCJUH-JLU-China: Breast Health Dance (2023) [English]CJUH-JLU-China: Breast Health Dance (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/ff3bb285-9687-49c7-8599-0e1033c44c6f/2f534b53-cb81-45be-b007-cb255fe81696-master.m3u8https://video.igem.org/videos/embed/xw195ixMh9D3DH7PNsAnFV920402023-09-30T07:46:14.990ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1qTM1qhgYXc11Lq6QNS1NHhttps://video.igem.org/lazy-static/thumbnails/6e472416-13fa-4d11-920e-8778f93657e9.jpgThe-Kings-School-AU: LandingPageVideoBackground (2023) [English]This is the video that plays in the background of the landing page if the iFrame works as expected. If not, it will be a static image. Wiki link: https://2023.igem.wiki/the-kings-school-au/index.html https://static.igem.org/peertube/streaming-playlists/hls/0379c231-5790-4079-9b4b-2a4a2b385c85/5889b825-2f9e-4aad-b1aa-fff0a89474cd-master.m3u8https://video.igem.org/videos/embed/1qTM1qhgYXc11Lq6QNS1NH9062023-09-30T12:09:17.945ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/i1x42sMTJ6WvEsHpHMPpPfhttps://video.igem.org/lazy-static/thumbnails/f2337e6e-8a35-4005-8da8-22618939b148.jpgIOANNINA: Team members for wiki page (2023) [English]This is a mini video presentation of team IOANNINA 2023 members for the wiki.https://static.igem.org/peertube/streaming-playlists/hls/89be7e69-3070-49da-9d47-d643deb930f8/ab8a96a6-cd08-4a4b-ac38-975d07efe813-master.m3u8https://video.igem.org/videos/embed/i1x42sMTJ6WvEsHpHMPpPf502742023-09-30T17:41:01.115ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hNTsy1MZoKLtezbB7Yt12Uhttps://video.igem.org/lazy-static/thumbnails/ab5b8fab-8243-41c1-bebd-9a739301031b.jpgULaval: National_DNA_Day (2023) [English]Participation in the National DNA Day. See our team wiki for more information : https://2023.igem.wiki/ulavalhttps://static.igem.org/peertube/streaming-playlists/hls/881e24db-4aeb-46c2-8533-0745d6b1b2a6/b37409da-91b5-45b9-9d62-a5572f33ad18-master.m3u8https://video.igem.org/videos/embed/hNTsy1MZoKLtezbB7Yt12U12082023-09-30T18:05:45.729ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aBJ1TTMeyYEjEF8b2cqaTDhttps://video.igem.org/lazy-static/thumbnails/3de79080-fcd5-41a6-8c61-09df3386e408.jpgUIncheon: CAD design of our bio0reactor (2023)It is an CAD design of our automatic bio-reactor for collecting biomasshttps://static.igem.org/peertube/streaming-playlists/hls/4ddf2c3d-ad21-4442-9c0d-285d99191e07/0ccdf1ab-ced4-4ea7-bbe0-39d6a3690b47-master.m3u8https://video.igem.org/videos/embed/aBJ1TTMeyYEjEF8b2cqaTD16012023-10-01T05:17:58.281ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/q6Jzxi7Z61z47XRrmLCNXnhttps://video.igem.org/lazy-static/thumbnails/a49535f0-6aa7-4cf7-a3e4-925baa290f4c.jpgMcGill: TeamCard_Landing (2023)Flashing team cards for McGill iGEM 2023 wiki landing page. https://2023.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/c3284956-c104-498e-8dc4-1b94fe46cba3/e899fa9f-62f8-4d4a-b5d9-e29ea1daede5-master.m3u8https://video.igem.org/videos/embed/q6Jzxi7Z61z47XRrmLCNXn5022023-10-01T05:56:59.805ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/bYHYRdHpAhuLoiUvg7dAdDhttps://video.igem.org/lazy-static/thumbnails/feb2670f-efed-45be-ab75-900b16885c23.jpgMcGill: PyroptosisCard_Landing (2023)Pyroptosis card for mcgill igem wiki 2023 https://2023.igem.wiki/mcgill/ 15 minutes by mike krol is so good guys its actual gas trashpunk is peakhttps://static.igem.org/peertube/streaming-playlists/hls/58e6e8ae-08c2-4277-98bd-70ab167ee285/8e8b8ab7-8bb4-454e-844f-e8a253cd60e6-master.m3u8https://video.igem.org/videos/embed/bYHYRdHpAhuLoiUvg7dAdD12022023-10-01T06:07:46.683ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4AJBdtowE7oXfsoWHZrzwxhttps://video.igem.org/lazy-static/thumbnails/74cc46e0-fd4d-41f8-b715-d5f504709515.jpgMcGill: WetLabB_Landing (2023)Wet lab B roll for mcgill igem 2023 landing page https://2023.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/1d24f635-6ca5-4544-bfc7-792e17fb5027/1e6e2b79-1737-4a7f-9695-634687e55614-master.m3u8https://video.igem.org/videos/embed/4AJBdtowE7oXfsoWHZrzwx40102023-10-01T06:16:01.299ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xksLgWZPXLCAiaKvZkzdGwhttps://video.igem.org/lazy-static/thumbnails/b23788ad-b9b1-48b9-9b55-4147391be82f.jpgMcGill: oncogene_Landing (2023)oncogene landing page igem mcgill 2023 https://2023.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/fdc2ec70-de58-445b-b7a6-33d43f373296/4fc26864-3316-401d-8563-1265176914f0-master.m3u8https://video.igem.org/videos/embed/xksLgWZPXLCAiaKvZkzdGw11022023-10-01T06:19:52.450ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wDRLJycuJw4R6Vcvfo9313https://video.igem.org/lazy-static/thumbnails/0df12072-043a-4da9-b52f-5553ccaeb6d1.jpgUIncheon: wet-lab (2023)wet-lab team videohttps://static.igem.org/peertube/streaming-playlists/hls/f83b5a17-c443-4ec5-b2b3-fe6238d1956a/914f4448-3fcf-4f04-83c0-05c103e4f2f9-master.m3u8https://video.igem.org/videos/embed/wDRLJycuJw4R6Vcvfo9313801122023-10-01T08:30:34.232ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gJvAeMnN26C4rMh734yXLmhttps://video.igem.org/lazy-static/thumbnails/7b74f883-b2c7-4f68-a2cb-f591305554e6.jpgUIncheon: rood video (2023)road video for backgroundhttps://static.igem.org/peertube/streaming-playlists/hls/7f688dcd-364c-4734-8fa0-b2952858d4b8/e210d171-0d07-47e6-ad4b-ae2049d811df-master.m3u8https://video.igem.org/videos/embed/gJvAeMnN26C4rMh734yXLm13002023-10-01T08:32:50.561ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4NRcybMdCGhXawotQ34zjhhttps://video.igem.org/lazy-static/thumbnails/ec15f042-8c88-4268-a63b-1f30237cd127.jpgUIncheon: incheon national university view (2023)view infornt of our labhttps://static.igem.org/peertube/streaming-playlists/hls/1ed5f312-5336-4fca-93f9-c00ca0532020/a1280e80-559b-44c1-878c-b961df6f1373-master.m3u8https://video.igem.org/videos/embed/4NRcybMdCGhXawotQ34zjh70272023-10-01T08:34:19.150ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5Q5JaLEzNbUfLqcQwTTPYGhttps://video.igem.org/lazy-static/thumbnails/328ac38c-b727-4a41-8955-a04519fa3dcf.jpgUIncheon: HP team (2023)video of our human practice teamhttps://static.igem.org/peertube/streaming-playlists/hls/271b2b32-c1ac-4d13-97f3-10ad02ab56dc/0f44d437-7d18-4680-8bb2-da9c92b490f2-master.m3u8https://video.igem.org/videos/embed/5Q5JaLEzNbUfLqcQwTTPYG801152023-10-01T08:36:02.669ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fzSjfnWKMedVVJJiVQWpp4https://video.igem.org/lazy-static/thumbnails/04c842c6-e467-4e0f-80e7-5b6018425980.jpgUIncheon: dry lab (2023)dry-lab team videohttps://static.igem.org/peertube/streaming-playlists/hls/761a7e3e-2132-4380-9550-53b58b813845/9887c24f-2d60-4f86-a0cd-c1dfa3d91223-master.m3u8https://video.igem.org/videos/embed/fzSjfnWKMedVVJJiVQWpp4801142023-10-01T08:37:15.964ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6ihdG5qfdai7j6mnHcdUMZhttps://video.igem.org/lazy-static/thumbnails/c821125d-e7dd-4ef7-9cbd-d232a44f1cca.jpgUIncheon: pouring water (2023)water drophttps://static.igem.org/peertube/streaming-playlists/hls/2ae75524-658c-4838-a633-d92f6623b42b/d8fdeaec-dfaf-4472-8629-464be10d2650-master.m3u8https://video.igem.org/videos/embed/6ihdG5qfdai7j6mnHcdUMZ19022023-10-01T08:38:26.953ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/edLUUMbAjvqc4Lh1oQ1Kmehttps://video.igem.org/lazy-static/thumbnails/1619bb59-0c1e-4891-9644-059c37710d8b.jpgMIT: End-over-end microcentrifuge tube rotating hardware (2023) [English]Video demonstrating how our hardware functions.https://static.igem.org/peertube/streaming-playlists/hls/6b0f67ed-c568-4b42-8138-bd4c99896661/cb3db3c1-9b8d-4403-a268-51138cf9aab5-master.m3u8https://video.igem.org/videos/embed/edLUUMbAjvqc4Lh1oQ1Kme30312023-10-01T08:56:06.719ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/bEokFjwBamSkDv3puhAyDZhttps://video.igem.org/lazy-static/thumbnails/908830e8-4d2f-4cf9-9f12-c5359fa10850.jpgUIncheon: Min young's (2023)Min Young's videohttps://static.igem.org/peertube/streaming-playlists/hls/56576abb-b98d-4c94-ac31-7b87b020d4ab/cf3d9401-8a93-4364-9140-e71dffa28dbb-master.m3u8https://video.igem.org/videos/embed/bEokFjwBamSkDv3puhAyDZ501482023-10-01T11:08:00.074ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5Ea3tQo7BnSordLaFck5wKhttps://video.igem.org/lazy-static/thumbnails/950d44fb-92ff-495d-aadc-c44e96eeab6c.jpgUIncheon: Jungkuk's (2023)one of our team member Jungkuk's videohttps://static.igem.org/peertube/streaming-playlists/hls/25b86404-b608-4162-827f-d60464bf1bcf/26f228ec-3485-4924-87e6-e4470b9880e1-master.m3u8https://video.igem.org/videos/embed/5Ea3tQo7BnSordLaFck5wK501422023-10-01T11:11:49.588ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dXRkxekio4n8aeYZ8uLobghttps://video.igem.org/lazy-static/thumbnails/cbfec1ad-6c68-4014-b09f-d9e6cbf772b8.jpgUIncheon: Jisung's (2023)one of our team member Ji sung's videohttps://static.igem.org/peertube/streaming-playlists/hls/68f9f9e7-fdcb-4650-a146-996dbcd142ab/41f0ec4c-a3ff-4771-bc6c-8a4501ae25f4-master.m3u8https://video.igem.org/videos/embed/dXRkxekio4n8aeYZ8uLobg501352023-10-01T11:12:39.839ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uvDoPX5mYTSKZi6baKg8z1https://video.igem.org/lazy-static/thumbnails/35112134-0aed-45f1-ac68-9bd5b120e45b.jpgUIncheon: Subin's (2023)one of our team members Subin's videohttps://static.igem.org/peertube/streaming-playlists/hls/e6e37f14-e131-4f53-9a48-37c4f3893a1e/d584d6c0-e3d6-48a5-9c1d-fc4b06fc8ccb-master.m3u8https://video.igem.org/videos/embed/uvDoPX5mYTSKZi6baKg8z1501502023-10-01T11:14:00.043ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eCEjeHPZ5pE2vi9SY8afXmhttps://video.igem.org/lazy-static/thumbnails/45821c06-5a5b-4401-8619-1eabb6e38d88.jpgUIncheon: Seungchan's (2023)one of our team member Seungchan's videohttps://static.igem.org/peertube/streaming-playlists/hls/6e6530be-35e1-4ff9-aa29-1ddaf16899da/1492b564-9211-4cb9-958c-218e6ddfae61-master.m3u8https://video.igem.org/videos/embed/eCEjeHPZ5pE2vi9SY8afXm501362023-10-01T11:14:48.450ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/iix74oYXA3ZwBf6HEd7TB1https://video.igem.org/lazy-static/thumbnails/ce8fc106-b56e-47e1-b8da-b95ba9a00db3.jpgUIncheon: Hyo jun's (2023)one of our team member Hyo jun's videohttps://static.igem.org/peertube/streaming-playlists/hls/8c1e2b8c-8763-465f-9339-bd61b299c64a/a8bcb065-9273-43be-8fd0-fb38d2f05921-master.m3u8https://video.igem.org/videos/embed/iix74oYXA3ZwBf6HEd7TB1501312023-10-01T11:15:52.526ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ivkSeBb7YEMnfogT2XoYGJhttps://video.igem.org/lazy-static/thumbnails/b0c8dbea-99b7-4565-b597-86315f5fd445.jpgUIncheon: Chulho's (2023)one of our team member Chulho's videohttps://static.igem.org/peertube/streaming-playlists/hls/8dc42b62-de7d-401c-92a5-3a777dae46da/607fb530-fdac-4c55-b928-f523a08f42c4-master.m3u8https://video.igem.org/videos/embed/ivkSeBb7YEMnfogT2XoYGJ501422023-10-01T11:16:54.693ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aheMCY28TAZBBrN8NaPrakhttps://video.igem.org/lazy-static/thumbnails/9ca7e0a5-9e45-4c71-a958-a5e16d0a4ea0.jpgUIncheon: Minseung's (2023)one of our team member Minseung's videohttps://static.igem.org/peertube/streaming-playlists/hls/4b26a50b-9e8b-462d-9193-e02e177f9a09/53aeb237-c56a-49d6-8b64-c019bfedc30f-master.m3u8https://video.igem.org/videos/embed/aheMCY28TAZBBrN8NaPrak501442023-10-05T20:52:39.298ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fTUQBhsKTYkryBpuzHFxgQhttps://video.igem.org/lazy-static/thumbnails/b8477b70-d20a-4d8c-9f7a-09bd370caf6e.jpgUIncheon: Junyoung's (2023)one of our team member Junyoung's videohttps://static.igem.org/peertube/streaming-playlists/hls/789f6fa6-3e9d-4bde-b3e4-67f59d4b37ba/fd031687-70bc-40c5-8082-d03bc0d2b07a-master.m3u8https://video.igem.org/videos/embed/fTUQBhsKTYkryBpuzHFxgQ501502023-10-05T20:52:59.173ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nnT7kxcZ1hjSsbKbtjLKurhttps://video.igem.org/lazy-static/thumbnails/96cf5343-1339-44f6-9aee-4e1c9258bc9d.jpgUIncheon: Wonah's (2023)one of our team member Wonah's videohttps://static.igem.org/peertube/streaming-playlists/hls/ad1e0739-f427-426b-829e-b1013145755d/c4567b87-0917-4c68-aec5-e9961c5eec4d-master.m3u8https://video.igem.org/videos/embed/nnT7kxcZ1hjSsbKbtjLKur501412023-10-01T11:52:13.420ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ty9UjfRGZm95CZrasAF6ochttps://video.igem.org/lazy-static/thumbnails/c3532334-746a-4c27-9b6e-2cc160a1b553.jpgUIncheon: Jihye's (2023)one of our team member Jihye's videohttps://static.igem.org/peertube/streaming-playlists/hls/df2407ce-c7b6-4ba0-bb1c-db42b8ea00f3/75cded9a-dafb-47e2-9b87-8ba2be006bd7-master.m3u8https://video.igem.org/videos/embed/ty9UjfRGZm95CZrasAF6oc501432023-10-01T11:53:02.522ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8ui3tkuuXdfQ7f3vMcApUhhttps://video.igem.org/lazy-static/thumbnails/cd4d5123-eb49-4415-9e4b-97df849213a6.jpgUIncheon: Seon Bok's (2023)one of our team member Seon Bok's videohttps://static.igem.org/peertube/streaming-playlists/hls/3ca34c8f-3f3f-48fe-aa7d-3502432cb474/c423e58c-10d9-4a09-b7b0-dfab4351aa29-master.m3u8https://video.igem.org/videos/embed/8ui3tkuuXdfQ7f3vMcApUh501472023-10-01T11:53:48.746ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9n24WwskQbaEBssNMidSZ4https://video.igem.org/lazy-static/thumbnails/08887a4e-6b4d-4168-9f5b-5e1bf98be84b.jpgUIncheon: JunHyeok's (2023)one of our team member JunHyeok's videohttps://static.igem.org/peertube/streaming-playlists/hls/43b862f7-58f4-4bc1-82a7-806bf3ec9b85/4f4b20cf-da66-4b88-b4f9-229eea866107-master.m3u8https://video.igem.org/videos/embed/9n24WwskQbaEBssNMidSZ4301302023-10-01T11:56:44.437ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ch9P5hTvBGYE29VapFWRwyhttps://video.igem.org/lazy-static/thumbnails/5303ff0a-bb1d-41fc-a6e8-2916d7a02d63.jpgUIncheon: Chun's (2023)one of our team member Chun's videohttps://static.igem.org/peertube/streaming-playlists/hls/5b55db1e-7c47-4078-ac01-ac6717b6dcd0/5c1058c2-4ad5-40e7-ba67-7923abfba02d-master.m3u8https://video.igem.org/videos/embed/ch9P5hTvBGYE29VapFWRwy501442023-10-01T11:58:07.290ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/njHgEUDKoLsaWsnieXFftZhttps://video.igem.org/lazy-static/thumbnails/b2912860-3e86-46ec-bcc0-340c4da43786.jpgUIncheon: library short-take (2023)our library videohttps://static.igem.org/peertube/streaming-playlists/hls/acacbbbe-86a9-4225-bc98-0a6b56caf2b7/0f3b8eb2-c78c-43c6-8f1c-7024e9793d66-master.m3u8https://video.igem.org/videos/embed/njHgEUDKoLsaWsnieXFftZ60452023-10-01T12:03:06.531ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8Ku5mkFAvF1wAd3YEKQnJuhttps://video.igem.org/lazy-static/thumbnails/3208e167-44b1-4056-b393-1d4043cc5b5b.jpgUIncheon: HP meeting vid (2023)HP meeting in our officehttps://static.igem.org/peertube/streaming-playlists/hls/3ec2412b-8a50-4e17-83ee-459252154784/7039a3ad-9794-4508-8461-abb9f8d9e346-master.m3u8https://video.igem.org/videos/embed/8Ku5mkFAvF1wAd3YEKQnJu16022023-10-01T12:04:25.452ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eoZAMzKBX8gu2WaRCUdGWbhttps://video.igem.org/lazy-static/thumbnails/694829eb-6d2b-48b1-890f-6bcf29c98d93.jpgUIncheon: Team vide (2023)Team's videohttps://static.igem.org/peertube/streaming-playlists/hls/6c7ca9a2-3346-4c46-ae90-749381df9e46/2016f8af-7895-4426-ac73-c549699cbfeb-master.m3u8https://video.igem.org/videos/embed/eoZAMzKBX8gu2WaRCUdGWb2401472023-10-01T12:10:26.039ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nB78YcmUPckhVtnD44oq3Zhttps://video.igem.org/lazy-static/thumbnails/f631b5b1-9564-4751-8b62-c164033a215c.jpgUIncheon: way to visit daejun (2023)background video taken in a vehiclehttps://static.igem.org/peertube/streaming-playlists/hls/aef6b9e2-95aa-4379-8b82-8f8d92da6c4d/bd2a6064-a4a0-453d-b338-a8a0a32a9814-master.m3u8https://video.igem.org/videos/embed/nB78YcmUPckhVtnD44oq3Z60642023-10-01T12:10:28.233ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3c45uMrLYFbVtUj6jhR4Xrhttps://video.igem.org/lazy-static/thumbnails/010e55ad-f9b0-4493-96a4-2e3e70cf5def.jpgUIncheon: in Daejun (2023)Video taken will we visiting Daejunhttps://static.igem.org/peertube/streaming-playlists/hls/11bd5afa-3280-4da6-9ac9-fc2881e06e23/5c65e57d-880e-48d9-9929-28529daf24b0-master.m3u8https://video.igem.org/videos/embed/3c45uMrLYFbVtUj6jhR4Xr5022023-10-01T12:13:19.973ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xuFBaKRaKR1MQpp8dhPDTEhttps://video.igem.org/lazy-static/thumbnails/27da1640-ad1c-4a33-8166-2eadcb88090e.jpgIFB-Gdansk: PPNT Guest Lecture (2023) [Polish]Recording of the speech called "EDC-Seas - innovation has more than one name" at Pomeranian Science and Technology Park in Gdynia. Wiki link: https://2023.igem.wiki/ifb-gdansk/https://static.igem.org/peertube/streaming-playlists/hls/ff0c8844-c0fb-47e6-9064-c5aa6bd86c00/71ef7818-392d-4cb5-b21a-5b7253ffee42-master.m3u8https://video.igem.org/videos/embed/xuFBaKRaKR1MQpp8dhPDTE722092023-10-01T19:47:11.900ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/actrgF6HJMRYiLUHvuT8xthttps://video.igem.org/lazy-static/thumbnails/eebec255-1cfc-4b2e-b4f7-faef73dd303c.jpgHUBU-HUBEI-CHINA: home (2023) [English]our home video on wiki https://2023.igem.wiki/hubu-hubei-china/homehttps://static.igem.org/peertube/streaming-playlists/hls/4a7c5656-7942-4543-8c8c-5323fac91a35/58198f0f-c283-43ed-90a1-7a29310cf61e-master.m3u8https://video.igem.org/videos/embed/actrgF6HJMRYiLUHvuT8xt50112023-10-02T11:29:32.900ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/bS9j8PVN5z5Mx2L2Htgaoohttps://video.igem.org/lazy-static/thumbnails/e7baa760-69a3-4ecc-8c7a-6516bb9dfb74.jpgNYU-Abu-Dhabi: HypeColl Explaining Synthetic Biology to 4 levels (2023) [English]In this video Rashik Chand, a co-leader of HypeColl iGEM team, explains the concept of synthetic biology and our project to 4 different levels of increasing complexity: teen, college student, biology instructor, and expert. The idea behind this video is that science can be accessible to everyone by explaining it using fundamental principles and simple analogies. As Albert Einstein once said: "Most of the fundamental ideas of science are essentially simple, and may, as a rule, be expressed in a language comprehensible to everyone." To learn more about our project, visit our wiki page: https://2023.igem.wiki/nyu-abu-dhabi/https://static.igem.org/peertube/streaming-playlists/hls/57fbb2ad-dfb9-47ed-8228-dcde21e0da3e/acb8913e-2c16-48e7-a9af-27e4f8cc5238-master.m3u8https://video.igem.org/videos/embed/bS9j8PVN5z5Mx2L2Htgaoo13540152023-10-03T12:24:11.728ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4WBfRa2pmNS5dqo15b3so7https://video.igem.org/lazy-static/thumbnails/935b1cdf-e8ac-42e0-a488-170c5b66bbbf.jpgGuangzhou-MedX: pig farm (2023)The video will be placed on the HP page and presented as a research result. Website Address:https://2023.igem.wiki/guangzhou-medx/human-practiceshttps://static.igem.org/peertube/streaming-playlists/hls/1feb4e8c-da39-40ad-a7a7-c2ceb9655f1a/356f1215-5ac8-4f21-93de-032c1c551865-master.m3u8https://video.igem.org/videos/embed/4WBfRa2pmNS5dqo15b3so729042023-10-03T15:03:00.628ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/d3M8kLG1aWqNd2qsfEbpQXhttps://video.igem.org/lazy-static/thumbnails/5ac2ba8e-66ba-44a0-aa2f-282166797415.jpgSCU-China: hardware (2023) [English]SCU-China design a Sewer Simulator Incubatorhttps://static.igem.org/peertube/streaming-playlists/hls/6190f631-a05f-49d1-96f4-c3a437eb0d83/cc977f19-4d98-4a4e-b485-44269b8a92db-master.m3u8https://video.igem.org/videos/embed/d3M8kLG1aWqNd2qsfEbpQX940302023-10-03T16:44:19.008ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/up7tGnf6HnKjrcFQxs621shttps://video.igem.org/lazy-static/thumbnails/2da807a3-7d99-4e43-8853-fba48da62786.jpgIISER-Pune-India: Preloader (2023)This video will act as the pre-loader for our team's wiki.https://static.igem.org/peertube/streaming-playlists/hls/e5f9fb29-72ec-43ab-abfc-7f914a956c86/181723c6-5ed2-43a7-b525-598df361ab10-master.m3u8https://video.igem.org/videos/embed/up7tGnf6HnKjrcFQxs621s30242023-10-03T17:13:40.517ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oVibjfgPjQk6xQkGNDkNAthttps://video.igem.org/lazy-static/thumbnails/a944fc3d-a776-4ce9-aa1b-187031f761ce.jpgXHD-WuHan-Pro-China: Hardware (2023) [English]XHD-WuHan-Pro-China: Hardware (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/b99a0e79-f469-4b65-b21c-e920dc32decf/d6cb327c-98ca-4fbe-8078-696ddce2959b-master.m3u8https://video.igem.org/videos/embed/oVibjfgPjQk6xQkGNDkNAt29082023-10-04T13:43:49.189ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ctZqVjVoQf3CUtUZhnWNeXhttps://video.igem.org/lazy-static/thumbnails/b7ae570d-6c1e-4497-92b3-7db2912fdbb7.jpgFudan: Education video (2023) [English]This is a video we shot and processed when we held an educational activity at the Shanghai Astronomy Museum. Credits: four child participants(we've got signed consent for all of them) Wiki link: https://2023.igem.wiki/fudan/https://static.igem.org/peertube/streaming-playlists/hls/5cfcffd3-d77d-4715-9f74-59a1e14dd9a1/56ce5396-6e36-46a3-9680-31f480d63b28-master.m3u8https://video.igem.org/videos/embed/ctZqVjVoQf3CUtUZhnWNeX110182023-10-05T06:12:11.267ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4tmHGV9nFZ88TaBFY5voophttps://video.igem.org/lazy-static/thumbnails/fef7c166-f268-49e1-acc4-4a2b4dc44a79.jpgLethbridge: canolaplant (2023)Video for University of Lethbridge Colligate iGEM Team Home Pagehttps://static.igem.org/peertube/streaming-playlists/hls/1c1d442f-2021-48a6-a971-baf93ae2ca33/ca7ea412-e31f-4ae2-9495-38e420ba8907-master.m3u8https://video.igem.org/videos/embed/4tmHGV9nFZ88TaBFY5voop3904902023-10-05T06:00:40.086ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/q5EcGQNwxMMBxfn9F532Uuhttps://video.igem.org/lazy-static/thumbnails/471c873b-74d1-4a44-a7bf-43c422c723e1.jpgBIT-China : Origin (2023)Origin animation on the wiki homepage https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/c301d87a-172a-4fdd-baad-23e0fbb8d378/b6314ab9-b4b6-46c3-a2b8-ce679a7394d6-master.m3u8https://video.igem.org/videos/embed/q5EcGQNwxMMBxfn9F532Uu3082023-10-05T06:04:43.960ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/d2FDrCWgaNbnUUUrNa9qpchttps://video.igem.org/lazy-static/thumbnails/16795797-8462-47fe-ab57-0a967480fe73.jpgFudan: Education (2023) [English]This is a video of our exchange and communication with the high school students at FDIS, and we want to incorporate it in our wiki. Credits: Qingying Yang(team member), Zicheng Lin(we've got signed consent for him) Wiki link: https://2023.igem.wiki/fudan/https://static.igem.org/peertube/streaming-playlists/hls/6169d712-b7ee-44e0-9b60-e2786cb6e871/757819db-4546-4d0f-8ce2-12354dd362a9-master.m3u8https://video.igem.org/videos/embed/d2FDrCWgaNbnUUUrNa9qpc500342023-10-05T06:24:00.440ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/t8tTkkcM4rs16BXnSTTUDWhttps://video.igem.org/lazy-static/thumbnails/d749baca-0d50-482d-ae73-d01287eb7348.jpgBIT-China : Different ratios (2023)An animation with different ratios on the wiki homepage https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/dbb2228e-7a7e-4c2e-bb19-ffbacffae710/9c7b386d-3fc8-47c1-bcf9-e3bf2bbe6f3b-master.m3u8https://video.igem.org/videos/embed/t8tTkkcM4rs16BXnSTTUDW3052023-10-05T06:32:05.449ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hGYaQEvnozqHHsQEMCa22Rhttps://video.igem.org/lazy-static/thumbnails/b38f2321-61a2-4e2a-8d98-849bfd3e8647.jpgBIT-China : Different types (2023)An animation with Different types on the wiki homepage https://2023.igem.wiki/bit-china/index.html https://static.igem.org/peertube/streaming-playlists/hls/874a95cb-0b6b-4200-a4a9-6e300a0cb9d7/aa0d6cde-aed2-4f4c-bd58-36a755324440-master.m3u8https://video.igem.org/videos/embed/hGYaQEvnozqHHsQEMCa22R3042023-10-05T06:32:41.670ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mx2KJ2prFNhTbsxzrfE76phttps://video.igem.org/lazy-static/thumbnails/92a05d2a-4cd1-4f30-aa55-386cb672b738.jpgBIT-China : White background animation 1 (2023)An animation with a white background on the wiki homepage https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/a64be932-cfed-4d90-8ed4-1f1af9cf0341/6fcaf676-1531-4dfc-9b90-3ce92fec1f63-master.m3u8https://video.igem.org/videos/embed/mx2KJ2prFNhTbsxzrfE76p11022023-10-05T06:33:58.820ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/p9UwGpWpijHtcmnMNp1xGshttps://video.igem.org/lazy-static/thumbnails/b2c4afce-a1bf-4360-9062-b75734332e39.jpgBIT-China : White background animation 2 (2023)An animation with a white background on the wiki homepage https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/bb8082fb-0bb0-402a-839b-3d1c56618b76/e83c189f-b2d3-447b-a0f6-773d67fe6bba-master.m3u8https://video.igem.org/videos/embed/p9UwGpWpijHtcmnMNp1xGs15022023-10-05T06:34:42.559ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rUmGmd85c6qsFwAhzQXFaFhttps://video.igem.org/lazy-static/thumbnails/9ad7ce62-0ab8-499e-8c3d-8f4657cbdbb7.jpgBIT-China : Beige background animation 1 (2023)An animation with a beige background on the wiki homepage https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/d1c3e58d-cd18-4a32-b58b-071e1064b2e5/f420b741-64af-4b5c-a544-714cdb3c9a13-master.m3u8https://video.igem.org/videos/embed/rUmGmd85c6qsFwAhzQXFaF11012023-10-05T06:35:05.628ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mdhxHNsG3brc1bdtbMAhb1https://video.igem.org/lazy-static/thumbnails/d5078880-0c12-4183-980a-fe91bf196e74.jpgBIT-China: Beige background animation 2 (2023)An animation with a beige background on the wiki homepage https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/a3ade555-6aeb-49f2-aa51-ecbef824b6a4/4d830e25-94b3-4fd2-a839-67791263f9b7-master.m3u8https://video.igem.org/videos/embed/mdhxHNsG3brc1bdtbMAhb115042023-10-05T06:36:19.385ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2b4dE3Exp8Z7RnxCMfnegThttps://video.igem.org/lazy-static/thumbnails/a0320ca0-340a-4693-bbaf-b2c7569bb1c1.jpgNTU-Singapore: dnahelix-pattern (2023)Animation of helix pattern by wipha https://2023.igem.wiki/ntu-singaporehttps://static.igem.org/peertube/streaming-playlists/hls/09808f45-3a3c-4b83-82e2-2efd6654fd35/78355ed7-601a-4c9b-9048-0d610e6cf642-master.m3u8https://video.igem.org/videos/embed/2b4dE3Exp8Z7RnxCMfnegT300442023-10-05T06:59:15.976ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tgjdKMaYDCacMUwYf3bQkKhttps://video.igem.org/lazy-static/thumbnails/1287fd1d-27fa-4507-b072-31a93344cb0c.jpgLethbridge: How to Prepare Antibiotics and IPTG (2023) [English]Narrator is Kylee Card This short video is an overview of how to prepare antibiotics and Isopropyl ß-D-1-thiogalactopyranoside (IPTG) for use in E. coli growth and protein over-expression. https://static.igem.org/peertube/streaming-playlists/hls/dcca20f8-4846-42a4-b930-fdc953a75ca9/9d9377d0-1aa0-4a1e-96f2-fcbb5a3b29c5-master.m3u8https://video.igem.org/videos/embed/tgjdKMaYDCacMUwYf3bQkK145032023-10-05T07:24:34.435ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eNUrfYLkz43Gqfrh9mAcKghttps://video.igem.org/lazy-static/thumbnails/f5efbaf4-188e-4c16-9520-2cc3d320d84b.jpgLethbridge: A Step-by-Step Process of How to Purify Proteins (2023) [English]Narrator is Damon Park An educational video on how to purify recombinant proteins overexpressed in E. coli cells.https://static.igem.org/peertube/streaming-playlists/hls/6fd3549c-c242-491a-af25-0ef9a613ce69/dcf7f16b-3b8b-43d6-a2b8-afe8a01dfe33-master.m3u8https://video.igem.org/videos/embed/eNUrfYLkz43Gqfrh9mAcKg414042023-10-05T07:32:23.931ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/b4oiAHai5VNNB7PvMK1Y1Lhttps://video.igem.org/lazy-static/thumbnails/fa4f6080-fc5c-4b6e-8b92-46a560f66fe3.jpgLethbridge: Casting SDS-PAGE Gels (2023) [English]Narrator is Jacob Challenger An educational video on how to properly cast an SDS-PAGE gel to use for protein electrophoresis.https://static.igem.org/peertube/streaming-playlists/hls/51745ce5-d0d5-408a-8593-46f51461ad9c/685c1808-71ba-4292-829f-0f2cff1b9536-master.m3u8https://video.igem.org/videos/embed/b4oiAHai5VNNB7PvMK1Y1L469072023-10-05T07:36:20.869ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/a32QdTjQ1AHVsqDMaQiWnkhttps://video.igem.org/lazy-static/thumbnails/81b4f2d0-9e52-4408-a41d-95382d4a9f4c.jpgLethbridge: Loading and Running SDS-PAGE (2023) [English]Narrator is Tyler Berry This is an instructional video on how to properly perform sodium dodecyl sulfate-polyacrylamide gel electrophoresis (SDS-PAGE) for visualizing protein samples.https://static.igem.org/peertube/streaming-playlists/hls/492add37-a623-43f5-8fa8-bacfcad61275/d36a7dd4-2f7f-47b6-887c-bb5b21d7e5b5-master.m3u8https://video.igem.org/videos/embed/a32QdTjQ1AHVsqDMaQiWnk114082023-10-05T07:39:26.717ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1GyRBA9SDC1SGtnfj1yU7hhttps://video.igem.org/lazy-static/thumbnails/76f6bad1-c12e-43e9-abb3-7cc0ad17a9d6.jpgLethbridge: Staining Polyacrylamide Gels (2023) [English]Narrator is Tyler Berry This short clip is a tutorial on how to stain polyacrylamide gels for protein visualization using Coomassie blue staining.https://static.igem.org/peertube/streaming-playlists/hls/05a9ffa8-704f-4c7f-8ad0-b7935662bdfc/bfd8c0e5-a015-4ee9-995d-c2ba2de4ead3-master.m3u8https://video.igem.org/videos/embed/1GyRBA9SDC1SGtnfj1yU7h71022023-10-05T07:39:47.714ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/umWVwddJPcPfdjsxZThkpThttps://video.igem.org/lazy-static/thumbnails/e43b5005-df46-4dad-a754-8d4e91c289d4.jpgLethbridge: Western Blot Protocol (2023) [English]Narrator is Jenna Letain This video is an overview of the western blot protocol, a widely used molecular biology technique used to identify specific proteins of interest from protein lysates, purifications, and more.https://static.igem.org/peertube/streaming-playlists/hls/e5ac9af1-1d06-434c-8341-e38ce3ece925/7f72d030-cee1-4e71-9b4d-8181af1ce4e9-master.m3u8https://video.igem.org/videos/embed/umWVwddJPcPfdjsxZThkpT3050112023-10-05T07:41:10.686ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aDyaeQ9r7kppPsQ2CfxHSKhttps://video.igem.org/lazy-static/thumbnails/e7032ebf-b84e-4527-a7ec-8c2338757795.jpgXHD-WuHan-China: Hardware (2023)XHD-Wuhan-China design it our wiki's link: https://2023.igem.wiki/xhd-wuhan-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/4e209617-45a5-4ca1-b76f-c23c93cad4bb/6767fdd5-a55e-40eb-9486-26d6b683728b-master.m3u8https://video.igem.org/videos/embed/aDyaeQ9r7kppPsQ2CfxHSK260192023-10-05T09:32:07.964ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hZPbKbw3sPX2TmqBKpLy7phttps://video.igem.org/lazy-static/thumbnails/e50b0a71-0168-49e1-934c-33e09932a658.jpgLethbridge: Video 1 FL-PbEL04 (2023)Video 1. Full-length PbEL04 three-dimensional (3D) molecular simulation and colouring of the 3 target epitope regions for the chimeric protein fluorescent probeshttps://static.igem.org/peertube/streaming-playlists/hls/89a4b140-b167-4a47-8383-2b98b82d37e3/da49ea68-70cd-4d64-919c-80256ea566a0-master.m3u8https://video.igem.org/videos/embed/hZPbKbw3sPX2TmqBKpLy7p360132023-10-05T14:31:06.269ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/69YPkZPcG7bQ3WDnhAbthchttps://video.igem.org/lazy-static/thumbnails/12ebb197-5400-4c2f-b836-0ac1b25d942d.jpgLethbridge: Supplementary Video 1 FL-Pbel04 and CAPE-GFP (2023)Supplementary Video 1: Docking simulation of the top 5 predictions of FL-PbEL04 and Chimeric Anti-PbEL04 GFP Protein (CAPE-GFP), it is denoted as C2 in the video this was the dry lab code for this protein, based on outputted GRAMM results. The third prediction was the best prediction due to contacts made, scoring and location on the receptor. https://static.igem.org/peertube/streaming-playlists/hls/29bea861-cb78-4f6a-94f4-b9e19b7123e7/234712f5-b27c-49dc-83b6-1c509da8235d-master.m3u8https://video.igem.org/videos/embed/69YPkZPcG7bQ3WDnhAbthc308022023-10-05T15:23:01.170ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/h3mnrEn5gCshxANBuLCo4Mhttps://video.igem.org/lazy-static/thumbnails/78f7029d-c2e0-45f9-9f30-6f2cde9c63df.jpgLethbridge: Supplementary Video 5 FL-PbEL04 and Rec.CP-MAF (2023)Supplementary Video 5: Docking Simulation of the top 5 predictions of FL-PbEL04 docking simulation with Recombinant Chimeric Probe with Mouse Antibody Framework (Rec. CP-MAF), based on GRAMM results. It is denoted as F2 (optimized) in the video this was the dry lab code for it.https://static.igem.org/peertube/streaming-playlists/hls/81e64266-3017-47a9-88ad-ea086f4a6193/fec0f902-de7a-44ec-8a2f-d21f40c663e4-master.m3u8https://video.igem.org/videos/embed/h3mnrEn5gCshxANBuLCo4M176032023-10-05T15:25:54.223ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dshBZ1itz9JZ6v5H5p8pwbhttps://video.igem.org/lazy-static/thumbnails/b9f66f7d-5eb2-42d9-92e7-454161140642.jpgLethbridge: Supplementary Video 3 FL-PRO1 and CAP-FP (2023)Supplementary Video 3: Docking simulation of the top 5 predictions of Full Length PRO1 (FL-PRO1) and Chimeric Anti-PRO1 Fluorescent Protein (CAP-FP), based on outputted GRAMM results, it is denoted as GFP-D2 (optimized) in the video this was the dry lab code for this protein.https://static.igem.org/peertube/streaming-playlists/hls/64d93e9f-84b3-408c-b3e9-ac792a074c5a/03328f22-1cef-48b6-b8bc-780f47a1b31a-master.m3u8https://video.igem.org/videos/embed/dshBZ1itz9JZ6v5H5p8pwb77012023-10-05T15:28:44.202ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/teR6gUj5w61AsCaZBXuhc1https://video.igem.org/lazy-static/thumbnails/4df20cf8-82d4-47f8-95aa-444305c7c9df.jpgLethbridge: Supplementary Video 4 FL-PRO1 and CAB-FP (2023)Supplementary Video 4: Docking simulation of the top 5 predictions of Full Length PbEL04 (FL-PbEL04) and Chimeric Anti-Bispecific GFP Protein (CAB-GFP), based on outputted GRAMM results, it is denoted as E2 (optimized) in the video this was the dry lab code for this protein. https://static.igem.org/peertube/streaming-playlists/hls/dc95aa8b-9ac5-4685-bf97-74d86635172e/262d5281-0bca-4ad9-9f05-70a5ed7bd2df-master.m3u8https://video.igem.org/videos/embed/teR6gUj5w61AsCaZBXuhc1277012023-10-05T15:31:01.145ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nuymMMdbxGbiQ6j7U4agVnhttps://video.igem.org/lazy-static/thumbnails/4a8acc87-89f2-4d2c-acbe-230f774d0167.jpgLethbridge: Supplementary Video 6 FL-PRO1 and CAP-FLP (2023)Supplementary Video 6: Docking simulation of the top 5 predictions of Full Length PRO1 (FL-PRO1) and Chimeric Anti-PRO1 Fluorescent Probe (CAP-FLP), based on outputted GRAMM results, it is denoted as FLU-G2 (optimized) in the video this was the dry lab code for this protein. https://static.igem.org/peertube/streaming-playlists/hls/ae0cadd3-e72f-4676-9d5f-1e62d1bf43cb/72e362fd-814d-46c9-aabd-88b45e119988-master.m3u8https://video.igem.org/videos/embed/nuymMMdbxGbiQ6j7U4agVn77012023-10-05T15:34:59.080ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7FHL6aFJnbAi2rBytmLTrDhttps://video.igem.org/lazy-static/thumbnails/ce14b252-567e-44e4-9463-a7df621cef46.jpgLethbridge: Supplementary Video 7.1 (2023)Supplementary Video 7.1: Master Movie of Full Length PbEL04, Dry lab code was A1 (Un-Optimized), refer to Supplementary Table 1.https://static.igem.org/peertube/streaming-playlists/hls/36229319-0ae5-4a00-92d4-412764c10e7b/13b984c5-d119-4150-b866-e6ec4a6e00e1-master.m3u8https://video.igem.org/videos/embed/7FHL6aFJnbAi2rBytmLTrD43002023-10-05T15:39:57.948ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mRHUxdne5wj3pL5pwxWK3phttps://video.igem.org/lazy-static/thumbnails/c28ac43a-b2a8-4fdb-8514-bda4078ac6df.jpgShanghaiTech-China: Participation in CCiC (2023) [English]From July 8th to 11th, the iGEM team of our university went to Hainan University to participate in the annual China iGEM Community Conference CCIC We showed this year‘s project - LAMPS (Blue Turobacteria Self-luminous System)https://static.igem.org/peertube/streaming-playlists/hls/a8e80b16-b639-4634-9d24-44b90e512b77/bdd0377a-c5b6-4632-8610-be5a490209c8-master.m3u8https://video.igem.org/videos/embed/mRHUxdne5wj3pL5pwxWK3p1760172023-10-05T16:23:27.100ZinterestingHainanCCICcooperationYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rTQUhqHf4Ngf8VKdX1czqyhttps://video.igem.org/lazy-static/thumbnails/837136ae-e060-43ae-b07d-e0da7fdb8a04.jpgShanghaiTech-China: An open day for high school students (2023) [Chinese]In cooperation with two other universities, we jointly organized the "FuFu iGEM " campus Open Day for high school students from the International Department of the High School Affiliated to Fudan University, hoping to provide an opportunity for international high school students who will soon form an iGEM team to learn more about iGEM competition and synthetic biology and stimulate their interest in science and innovation. https://static.igem.org/peertube/streaming-playlists/hls/d1b1890c-ab7b-46c2-ab7e-5ef5ef4e25cc/cdce1659-231d-4323-993f-290993cd23e7-master.m3u8https://video.igem.org/videos/embed/rTQUhqHf4Ngf8VKdX1czqy95062023-10-05T16:25:46.690Zinterestinghigh school studentsopen dayYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gpKjd9KUUVtc9M2Vt25UqLhttps://video.igem.org/lazy-static/thumbnails/239b63c5-96c9-4627-8ec0-05c88f236dbb.jpgShanghaiTech-China: A science popularization lecture on climate crisis (2023) [Chinese]In this event, our mission is to enlighten the students of Sunqiao Elementary School about the climate crisis that the Earth is facing. We introduced them to our iGEM project and its potential contributions to addressing the climate crisis. https://static.igem.org/peertube/streaming-playlists/hls/7cc9e139-8978-44e0-9eab-40ce98f3353c/353e3b55-b17f-4c45-a162-9c18a8bf8b3a-master.m3u8https://video.igem.org/videos/embed/gpKjd9KUUVtc9M2Vt25UqL77072023-10-05T16:28:07.137Zprimary school studentsinterestingclimate crisisscienceYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4EVLp6AdN4MefKXaJPNAZkhttps://video.igem.org/lazy-static/thumbnails/2105fe15-78ea-49c6-adc1-717d2b8f0846.jpgShanghaiTech-China: Experimental Techniques and Synthetic Biology Class (2023) [Chinese]Targeting high school students participating in biology competitions, we designed a special course where our team members, who have participated in and won awards in biology competitions, visited Liaoning Experimental High School to teach second-year students about experimental techniques and specialized knowledge in synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/1dbad03a-de40-4554-a1f9-adb0628d4de5/e445f300-07a8-4a2d-8b66-36e1cac1cb3f-master.m3u8https://video.igem.org/videos/embed/4EVLp6AdN4MefKXaJPNAZk53042023-10-05T16:31:18.234Zsynthetic biologyexperimental techniquesYESiGEM 2023 TeamsNOhttps://video.igem.org/w/cvJEM7TKS4kQ4GA4a29MgXhttps://video.igem.org/lazy-static/thumbnails/18f85a4d-2f93-4151-8913-98a46e8f10b5.jpgLethbridge: Supplementary Video 9.2 (2023)Supplementary Video 9.2: Master Movie of the Chimeric Anti-PbEL04 GFP Protein (CAPE-GFP), Dry lab code C2. This protein is shown to bind in Supplementary Video 1, refer to Supplementary Table 1. https://static.igem.org/peertube/streaming-playlists/hls/5d3b63d9-a082-400c-a2e1-74f4ad6cc9a1/ccc4832b-6170-4166-b2c5-ad536b2594c7-master.m3u8https://video.igem.org/videos/embed/cvJEM7TKS4kQ4GA4a29MgX30002023-10-05T17:14:53.888ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/524jBfrgRU4GiK7QomdU2Shttps://video.igem.org/lazy-static/thumbnails/aa231cf9-2b59-4ef1-9af6-2c8fab53b764.jpgLethbridge: Supplementary Video 8.1 (2023)Supplementary Video 8.1: Master Movie of Full Length PRO1, Dry lab code was B1(Un-Optimized), refer to Supplementary Table 1.https://static.igem.org/peertube/streaming-playlists/hls/208a584d-fb45-4aaf-bc0b-193797cd0e9c/1023a681-0cdb-4e67-b4f6-f695e040d9b9-master.m3u8https://video.igem.org/videos/embed/524jBfrgRU4GiK7QomdU2S29002023-10-05T17:15:13.010ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sBPPxJHimyrkkmuUasMFYKhttps://video.igem.org/lazy-static/thumbnails/03887270-b6ff-414b-8139-095317bc4cb5.jpgLethbridge: Supplementary Video 9.1 (2023)Supplementary Video 9.1: Master Movie of GFP, dry lab code C1(Un-Optimized) protein that binds specifically to FL-PbEL04. This version is the GFP protein without the added His Tags, Its counterpart is shown in Supplementary Video 8.2, refer to Supplementary Table 1.https://static.igem.org/peertube/streaming-playlists/hls/d78e1b6a-9dbf-4b14-aa64-b124dbbddd9f/afaa6f0b-fd72-46af-9d11-39ad116ca234-master.m3u8https://video.igem.org/videos/embed/sBPPxJHimyrkkmuUasMFYK32002023-10-05T17:16:23.941ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5rRUjZgnQwvQHCFRgjcbaGhttps://video.igem.org/lazy-static/thumbnails/3112fe58-eae1-4c96-927d-64ef1dc0a7a1.jpgLethbridge: Supplementary Video 11.2 (2023)Supplementary Video 11.2: Master Movie of Chimeric Anti-bispecific GFP (CAB-GFP) protein, dry lab code E2 (Optimized). This protein is shown to bind in Supplementary Video 4, refer to Supplementary Table 1. https://static.igem.org/peertube/streaming-playlists/hls/2400e6f7-4b7d-4d61-8bb2-d26a657cf692/51c84da4-20e6-4a7b-80c4-1a0021c69485-master.m3u8https://video.igem.org/videos/embed/5rRUjZgnQwvQHCFRgjcbaG22002023-10-05T17:16:54.245ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dWX9Ra9AWFRifLLRAwLJq4https://video.igem.org/lazy-static/thumbnails/e4ed7f76-5bfe-4a6c-ae8d-fe1640496420.jpgLethbridge: Supplementary Video 10.1 (2023)Supplementary Video 10.1: Master Movie of GFP, dry lab code D1(Un-Optimized) protein that binds specifically to PRO1. Refer to Supplementary Table 1. https://static.igem.org/peertube/streaming-playlists/hls/68d9d103-b30c-4202-b597-c31530c6c79b/92916ded-661c-4201-bdfe-94dce84e8c92-master.m3u8https://video.igem.org/videos/embed/dWX9Ra9AWFRifLLRAwLJq430002023-10-05T17:17:28.718ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8nKUQiPYWrYVVr84mC6fKmhttps://video.igem.org/lazy-static/thumbnails/df4ab46f-d633-4892-abf3-6044deccfb0d.jpgLethbridge: Supplementary Video 12.2 (2023)Supplementary Video 12.2: Master Movie of Recombinant Chimeric Probe with Mouse Antibody Framework (Rec. CP-MAF), dry lab code F2 (Optimized). This protein is shown to bind in Supplementary Video 5, refer to Supplementary Table 1.https://static.igem.org/peertube/streaming-playlists/hls/3bb9a69e-28ec-4f5e-b520-d69572c4c692/59ef2ec5-bf61-4cfd-b656-70bf94d55b0e-master.m3u8https://video.igem.org/videos/embed/8nKUQiPYWrYVVr84mC6fKm26002023-10-05T17:18:27.265ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/siSqeVop6u2NCEYYdxkLZhhttps://video.igem.org/lazy-static/thumbnails/56dbe114-e54d-48f2-9465-00c1e6fae9fd.jpgLethbridge: Supplementary Video 11.1 (2023)Supplementary Video 11.1: Master Movie of GFP, dry lab code E1(Un-Optimized) protein that is bi-specific for FL-PbEL04 and FL-PRO1, refer to Supplementary Table 1. https://static.igem.org/peertube/streaming-playlists/hls/d50c5205-fb63-4190-8287-caa0fe4b5092/9b6613f8-f141-4ad1-ad0a-6ad05ce8713f-master.m3u8https://video.igem.org/videos/embed/siSqeVop6u2NCEYYdxkLZh30002023-10-05T17:18:52.010ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jncZdZSoA3YtTfZrXE4Cjehttps://video.igem.org/lazy-static/thumbnails/317631b8-f351-4d7f-a4f3-46d1a96f9a14.jpgLethbridge: Supplementary Video 13.2 (2023)Supplementary Video 13.2: Master Movie of Chimeric Anti-PRO1 Fluor Protein (CAB-FLP), dry lab code G2 (Optimized). This protein is shown to bind in Supplementary Video 5, refer to Supplementary Table 1.https://static.igem.org/peertube/streaming-playlists/hls/94ba8087-8ca1-4de7-8d98-c7db0f91bc29/b5e4de10-a6c2-4690-9362-93b5739d1652-master.m3u8https://video.igem.org/videos/embed/jncZdZSoA3YtTfZrXE4Cje49002023-10-05T17:20:03.226ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7fCor4SmJwXPun9Py1hdU7https://video.igem.org/lazy-static/thumbnails/8763818a-f6da-4fad-8786-76c12302f89e.jpgLethbridge: Supplementary Video 12.1 (2023)Supplementary Video 12.1: Master Movie of Recombinant Chimeric Probe with Mouse Antibody Framework, dry lab code F1 (unoptimized). It is bi-specific for FL-PbEL04 and FL-PRO1. Refer to Supplementary Table 1. https://static.igem.org/peertube/streaming-playlists/hls/32a1ab3b-a15b-4c98-9785-404a2519babe/180861c8-f543-4558-8f13-c432b6a7de33-master.m3u8https://video.igem.org/videos/embed/7fCor4SmJwXPun9Py1hdU739022023-10-05T17:20:27.871ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sn1XCJV9kmJBCaJ8Z7nFjGhttps://video.igem.org/lazy-static/thumbnails/4d4ff6b8-5572-4c0b-92ca-c83f9dc6de16.jpgLethbridge: Supplementary Video 13.1 (2023)Supplementary Video 13.1: Master Movie of a Fluorophore protein, dry lab code G1(Un-Optimized) that binds to PRO1, refer to Supplementary Table 1.https://static.igem.org/peertube/streaming-playlists/hls/d57cd0c1-bb0b-4ec1-954f-11b9a9a3fac0/2f87a5b7-12c4-444d-bd16-2efbe8bea562-master.m3u8https://video.igem.org/videos/embed/sn1XCJV9kmJBCaJ8Z7nFjG48002023-10-05T17:21:26.577ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pjfK5uFF4bRBoYH4pNeqVNhttps://video.igem.org/lazy-static/thumbnails/5743a7ff-6a6e-4a06-8bc9-738194929172.jpgLethbridge: How to Use a Centrifuge (2023)Narrator is Kylee Card An instructional video on how to safely use a centrifuge.https://static.igem.org/peertube/streaming-playlists/hls/bccea99d-97a5-4e7e-8359-d07ba2932f18/b5aae517-c450-4ebd-864d-3088856c865e-master.m3u8https://video.igem.org/videos/embed/pjfK5uFF4bRBoYH4pNeqVN133002023-10-05T18:12:22.461ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wXYPCQvLAVARx9D2nkKjNbhttps://video.igem.org/lazy-static/thumbnails/134b0c34-9436-46ce-8e74-b344d553f0ea.jpgLethbridge: The Role of Detergents and Degassing Buffers (2023)Narrator is Jacob Challenger An educational video on the role of buffers and why we use detergents in them. Also, a brief explanation of the purpose of degassing buffers.https://static.igem.org/peertube/streaming-playlists/hls/fac315a2-e676-4345-ba59-2980330696c6/69527756-c831-46cc-8414-3c65ba52b89f-master.m3u8https://video.igem.org/videos/embed/wXYPCQvLAVARx9D2nkKjNb96012023-10-05T18:16:15.937ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/u6sU6nNi9MLYvEd7oqCZtzhttps://video.igem.org/lazy-static/thumbnails/f89cab98-9e45-4724-85e9-c304f66da929.jpgLethbridge: Preparing a Primary Culture for Protein Overexpression (2023)Narrator is Beanka Jubane A short tutorial on preparing a primary culture, which is the first step in preparing E. coli for overexpressing recombinant proteins.https://static.igem.org/peertube/streaming-playlists/hls/e3832d8b-14f3-48c1-9946-0ba2468961a3/8e335f7d-b234-4dbe-a7e1-c04246864ac6-master.m3u8https://video.igem.org/videos/embed/u6sU6nNi9MLYvEd7oqCZtz47002023-10-05T18:17:06.951ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/33HHj6V2VbjcwpazZrCugjhttps://video.igem.org/lazy-static/thumbnails/fbeacbd4-6857-41b7-b2d4-5b0e6ae433c3.jpgLethbridge: Preparing Cell Growth Media (2023)Narrator is Beanka Jubane A brief overview of how to prepare LB and YT media for use in bacteria cell culturing.https://static.igem.org/peertube/streaming-playlists/hls/10937891-1feb-4924-943f-dbf1cd9183f8/0785c300-643c-4c49-a6d7-edb8ebf1d37a-master.m3u8https://video.igem.org/videos/embed/33HHj6V2VbjcwpazZrCugj110012023-10-05T21:10:57.571ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/m811RPwSyM36YeuXjDYtZDhttps://video.igem.org/lazy-static/thumbnails/985752d8-ff89-4d5a-90d6-5d339446a0cc.jpgLethbridge: How to Use a pH Meter (2023)Narrarator is Kylee Card An instructional video on how to properly calibrate and use a pH meter for use in measuring the acidity or alkalinity of solutions.https://static.igem.org/peertube/streaming-playlists/hls/a2f0fd1c-86c2-4cf5-992f-2251954f7feb/a1a74a1a-07a2-451e-af37-2818dc7baf83-master.m3u8https://video.igem.org/videos/embed/m811RPwSyM36YeuXjDYtZD169062023-10-05T21:18:33.293ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fJtUGHRSnoMx4vReidArQjhttps://video.igem.org/lazy-static/thumbnails/813e776f-c3d7-4451-80f8-dba1600c87b7.jpgLethbridge: Preparing a Secondary Culture for Protein Overexpression (2023)Narrator is Beanka Jubane A short tutorial on how to prepare a secondary culture for overexpressing recombinant proteins from transformed Escherichia coli cells.https://static.igem.org/peertube/streaming-playlists/hls/774e60ff-a399-4718-8c40-a38f097bdbe6/f0900ba6-78da-47d9-b477-7c7913849219-master.m3u8https://video.igem.org/videos/embed/fJtUGHRSnoMx4vReidArQj159022023-10-05T21:26:10.428ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mttRDySsn7P2jvneBCQ3Rihttps://video.igem.org/lazy-static/thumbnails/d0f096bc-fe5b-4c27-83b4-b79c304e6b6b.jpgLethbridge: Preparation of SDS-PAGE Gel Premix (2023)Narrator is Jacob Challenger An educational video on the components of SDS-PAGE gels stacking and resolving layers.https://static.igem.org/peertube/streaming-playlists/hls/a5cd0598-644d-4c6e-9220-e1a7472472d3/d3b7e436-2014-475f-a45d-b738f4de5434-master.m3u8https://video.igem.org/videos/embed/mttRDySsn7P2jvneBCQ3Ri136022023-10-05T21:29:07.361ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2vwtBCaAdfTfUaimQSShDjhttps://video.igem.org/lazy-static/thumbnails/33864e00-e798-42b1-9824-fee7c02d06a9.jpgLethbridge: Preparing Samples for SDS-PAGE (2023)Narrator is Gregory Robinson A short instructional video on how to prepare protein samples for SDS-PAGE.https://static.igem.org/peertube/streaming-playlists/hls/0c387d53-af27-4e66-8559-33c0b753a224/fee731d7-996f-4c28-aaf3-85e6d7c1909b-master.m3u8https://video.igem.org/videos/embed/2vwtBCaAdfTfUaimQSShDj65022023-10-05T21:29:45.154ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sS3af28YEfpMJPUDXcRL9nhttps://video.igem.org/lazy-static/thumbnails/7ca0736f-01a2-464f-aaac-8e6230ad19e2.jpgLethbridge: How to Perform Bacterial Transformation (2023)Narrator is Jenna Letain An educational tutorial on how to perform bacterial transformation using heat shock.https://static.igem.org/peertube/streaming-playlists/hls/d98a1fd8-b1b4-441c-9ef1-09254f07630d/60f3b4b0-0654-46a0-8f3f-f0b3f4501c78-master.m3u8https://video.igem.org/videos/embed/sS3af28YEfpMJPUDXcRL9n136072023-10-05T21:32:12.125ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gJmxUz4egPGe4UzTeJabnjhttps://video.igem.org/lazy-static/thumbnails/36315e5d-9f67-46ad-8afd-51928d3a32c1.jpgLethbridge: Overview of How to Clone (2023)Narrator is Jenna Letain A brief overview of the cloning workflow, a fundamental molecular biology technique.https://static.igem.org/peertube/streaming-playlists/hls/7f62fb91-e782-42b1-af2f-8cd7ebaed0a4/fdcbe484-9f9c-4484-ba8d-b0d6ac4d1d96-master.m3u8https://video.igem.org/videos/embed/gJmxUz4egPGe4UzTeJabnj249032023-10-05T22:02:01.999ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ihuX9R65KEeK5Y35gomHCJhttps://video.igem.org/lazy-static/thumbnails/d0885ce0-e4b7-44e4-871d-6020039a9f5a.jpgUIncheon: hyeonsoo (2023)hyeonsoo videohttps://static.igem.org/peertube/streaming-playlists/hls/8bf91963-28b4-42f9-9f33-8f2e1d4213f6/f968c50d-812f-4d34-9e08-cdcb0116818b-master.m3u8https://video.igem.org/videos/embed/ihuX9R65KEeK5Y35gomHCJ501132023-10-05T23:00:13.975ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ptbtmV5i3jYRkwHBYwS3x5https://video.igem.org/lazy-static/thumbnails/cfa77766-6ca0-4ab8-9f24-82a40379ad51.jpgSVCE-CHENNAI: how does our GMO work (2023) [English]This is how our GMO works.https://static.igem.org/peertube/streaming-playlists/hls/be0db972-a2fa-4457-9aff-eef9351a3942/2981d08e-e84c-464b-aac3-ee22fb3592f0-master.m3u8https://video.igem.org/videos/embed/ptbtmV5i3jYRkwHBYwS3x5670352023-10-06T03:35:42.830ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xx3yf4GPyh8SjUWcnRcorShttps://video.igem.org/lazy-static/thumbnails/edf2589e-830e-40c1-a062-52346861ddbc.jpgSZU-China: Hardware (2023) [English]A video showcasing large-scale production of shRNA molecules with an automated hardware. https://static.igem.org/peertube/streaming-playlists/hls/ff60ee32-c199-4096-8dbd-d1f379e5309c/b74b7109-8216-4432-8e18-51b38da344f3-master.m3u8https://video.igem.org/videos/embed/xx3yf4GPyh8SjUWcnRcorS790882023-10-06T06:16:51.356ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3PRmU4jmLbZnfAEy6KpT6Nhttps://video.igem.org/lazy-static/thumbnails/af7eeea7-0917-4bb2-8327-6ed78358b6e3.jpgCAU-China: Dandelion Middle School Education Activity Feedback (2023) [Chinese]Dandelion Middle School Education Activity Feedbackhttps://static.igem.org/peertube/streaming-playlists/hls/16e0a764-7dcc-4403-8877-345669b5d7e4/c1dfdd04-1f13-4b4b-a027-7856d71bca1d-master.m3u8https://video.igem.org/videos/embed/3PRmU4jmLbZnfAEy6KpT6N780102023-10-06T08:12:37.208ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ohJqYi2A8FENn1MZT68SMThttps://video.igem.org/lazy-static/thumbnails/272f2735-5a02-4496-9cb6-4dc911a9c971.jpgCJUH-JLU-China: What is iGEM? A Video tell you! (2023) [English]CJUH-JLU-China: What is iGEM? A Video tell you! (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/b47f197e-2804-43a4-8c3f-76828af33975/040debbb-154d-4809-8c7e-a4bdd6626223-master.m3u8https://video.igem.org/videos/embed/ohJqYi2A8FENn1MZT68SMT900162023-10-06T08:18:30.009ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uqx2fQkVm7QVkduxeoDTDghttps://video.igem.org/lazy-static/thumbnails/622a3b2d-1a42-46a6-ad34-64ca961e31f6.jpgTongji-Software: Introduction to our mini game (2023) [English]This is a introduction video to our mini game for iGem compitition. The results of the questionnaire indicate that the majority of people prefer to acquire relevant knowledge through games. Therefore, we believe that designing a related mini-game would be an effective way to popularize science knowledge. See our wiki: [Tongji Software 2023](https://2023.igem.wiki/tongji-software/description)https://static.igem.org/peertube/streaming-playlists/hls/e62cd9c9-86e0-43ac-8aee-af27bdd95ca5/6ccec271-26ff-4bd0-b7ec-aa102ce07520-master.m3u8https://video.igem.org/videos/embed/uqx2fQkVm7QVkduxeoDTDg2260152023-10-06T11:09:32.762Zchinatongjimini_gamegameYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sskgTRNDbZnrvEqDCNHNsahttps://video.igem.org/lazy-static/thumbnails/ab03e5f0-61f3-4c67-a73c-e5a8b0deaf60.jpgBIT-China: Micro-Expression Recognition Demo (2023) [English]This is a demonstration of our model. For more details, please visit our website. https://2023.igem.wiki/bit-china/model_5https://static.igem.org/peertube/streaming-playlists/hls/d63ad23b-ea29-4379-8705-622914ddad6d/297e4372-8864-4d5e-8125-ccb5017075c6-master.m3u8https://video.igem.org/videos/embed/sskgTRNDbZnrvEqDCNHNsa46072023-10-06T11:59:50.624ZBIT-ChinaWikiDemoMicro-Expression RecognitionYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fbBGRHkTpQNsTUUyCbrzazhttps://video.igem.org/lazy-static/thumbnails/5343795e-bb4f-4a38-9804-bf2996fd91c0.jpgBIT-China: Card Game: 'To See Biotech in a Tree'-Demo (2023) [English]This is a demonstration of our card game for education. For more details, please visit our website. https://2023.igem.wiki/bit-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/72db61f0-aa85-45fd-bd76-8ad683f052d7/40337dcd-6283-4c71-8b4a-afb888b3ec69-master.m3u8https://video.igem.org/videos/embed/fbBGRHkTpQNsTUUyCbrzaz200002023-10-06T12:15:44.447ZEducationDemoBIT-ChinaCard GameYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1eage141C2VPpRi61JcEFWhttps://video.igem.org/lazy-static/thumbnails/a034b45a-ae4b-4652-b8bd-29e00b06ace2.jpgUNILA-LatAm: FAST-PETase_Linker_MHETase_pLDDT_movie (2023)Witness the fascinating molecular interactions within the FAST-PETase : Linker : MHETase complex through a captivating pLDDT movie. This cutting-edge research sheds light on protein-ligand binding affinities and promises exciting insights. For more detailed information, check out the accompanying wiki page: https://2023.igem.wiki/unila-latam/. Dive into the future of bioinformatics and computational biology with UNILA-LatAm.https://static.igem.org/peertube/streaming-playlists/hls/01d66091-7415-4cf8-bb79-f4fd29f26d7c/478f00b7-2dae-4e1e-81f1-570675108f53-master.m3u8https://video.igem.org/videos/embed/1eage141C2VPpRi61JcEFW802452023-10-06T12:34:17.572ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kSQApebcBEbcTg17vizHMbhttps://video.igem.org/lazy-static/thumbnails/338af432-d68a-4a63-970c-c2ca4c069d91.jpgUNILA-LatAm: Slignment Quimeric to Wildtype (2023)Discover the latest advancements in UNILA-LatAm's research in 2023. This video delves into the intricacies of aligning quimeric structures to wildtype counterparts, offering valuable insights into molecular transformations. Join us on this scientific journey as we explore the alignment process and its implications. For a comprehensive overview and additional information, visit our dedicated wiki page: https://2023.igem.wiki/unila-latam/. Explore the world of structural biology and computational analysis with UNILA-LatAm.https://static.igem.org/peertube/streaming-playlists/hls/a0f6c505-14d0-41f0-a8d0-99032ad333d8/b1c74a28-1f2c-4c03-bf0a-4986eb1d9fdb-master.m3u8https://video.igem.org/videos/embed/kSQApebcBEbcTg17vizHMb802502023-10-06T12:37:29.524ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/esQP8p3fd4eaXjNrZNXWarhttps://video.igem.org/lazy-static/thumbnails/ba72bfe2-5abb-4137-b926-ce2c20d0c5ce.jpgMIT-MAHE: ABOA Collaboration (2023) [English]iGEM season ropes in several important days that have contributed towards the well- being of our planet. World Environment Day (June 5) is a good day to be reminded of what the Earth is enduring and to always be showing our support. MIT-MAHE participated in a collaborative mission, initiated by ABOA where we fashioned a “Let us Save Our Planet From TCC” poster which portrayed our mission while aligning with the Environment Day spirit. Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/6d0638ef-204a-4426-8b8e-96b0d63e7313/ae754999-db92-4f45-af58-40edcdd4076f-master.m3u8https://video.igem.org/videos/embed/esQP8p3fd4eaXjNrZNXWar5092023-10-06T13:35:14.035ZCollaborationBioremediationEarthOur PlanetYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9cJy5wSyh95oSbwTqYMd8vhttps://video.igem.org/lazy-static/thumbnails/01c033ea-493a-463c-97ac-489b131c4a1c.jpgShanghaiTech-China: Science Outreach on "Invisible Microorganisms" (2023) [Chinese]We aimed to guide these young students in exploring the fascinating world of microorganisms, understanding their unique characteristics and microscopic structures, and experiencing firsthand the methods of observing and studying microorganisms. Through hands-on activities, the children were immersed in a laboratory-like environment, which we believe will lay a solid foundation for their future studies in synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/426c83d7-d298-400e-b534-bddecd176aab/b501fa49-6ae3-4661-8ec5-1a624cc915d9-master.m3u8https://video.igem.org/videos/embed/9cJy5wSyh95oSbwTqYMd8v1040132023-10-06T12:43:45.946Zsynthetic biologymicroorganismscience outreachYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pXVw52ZUVB72F71Ftvfm1ohttps://video.igem.org/lazy-static/thumbnails/cb5de6cc-0513-4a2a-841c-4454bf9ef859.jpgUNILA-LatAm: complex_linker_pet (2023)Dive into the realm of complex protein-ligand interactions. This video takes you on a journey through the intricacies of protein-ligand binding within the 'complex_bounded_pet. Gain a deeper understanding of the forces and energies at play in this molecular dance. For a more in-depth look and comprehensive details, explore our dedicated wiki page: https://2023.igem.wiki/unila-latam/. Join us in unraveling the mysteries of molecular interactions through the lens of computational biology and structural analysis with UNILA-LatAm.https://static.igem.org/peertube/streaming-playlists/hls/c2111414-b042-45c5-b7f5-250eb74b8b86/019c7698-ff62-44f3-aed7-3889fef5d362-master.m3u8https://video.igem.org/videos/embed/pXVw52ZUVB72F71Ftvfm1o1602582023-10-06T13:18:18.083ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qDPo1wE94JoKgxsPEF3esEhttps://video.igem.org/lazy-static/thumbnails/28d844a4-88d5-4afd-8021-0d388522e4da.jpgUNILA-LatAm: FAST-PETase_linker_MHETase_active_sites (2023)Embark on a journey to uncover the secrets of 'complex' active sites with 'UNILA-LatAm: complex' active sites. In this video, we delve into the intriguing world of protein active sites within the complex, shedding light on their role and significance in molecular interactions. Explore the critical binding regions and understand how they impact the overall functionality of this complex. For a deeper exploration and comprehensive insights, make sure to visit our dedicated wiki page: https://2023.igem.wiki/unila-latam/. Join us in unraveling the intricate mechanisms that drive molecular biology and computational analysis at UNILA-LatAm.https://static.igem.org/peertube/streaming-playlists/hls/c7a30bc4-4c25-4c63-a7d5-7465e160701e/5530a006-e1f1-4fb5-9073-3489eca170a8-master.m3u8https://video.igem.org/videos/embed/qDPo1wE94JoKgxsPEF3esE1602552023-10-06T12:58:06.991ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dmQRyyunEdrKyNMcn1C2vMhttps://video.igem.org/lazy-static/thumbnails/693b403c-dc71-4d57-a6df-093cea798b9a.jpgUNILA-LatAm: complex-mhet (2023)Dive into the realm of complex protein-ligand interactions with this video that takes you on a journey through the intricacies of protein-ligand binding. Gain a deeper understanding of the forces and energies at play in this molecular dance. For a more in-depth look and comprehensive details, explore our dedicated wiki page: https://2023.igem.wiki/unila-latam/. Join us in unraveling the mysteries of molecular interactions through the lens of computational biology and structural analysis with UNILA-LatAm.https://static.igem.org/peertube/streaming-playlists/hls/6416a5a0-6f66-4333-82c5-112efc67a6e3/2fdd6c22-a50c-47d6-922b-dd3564bb0b39-master.m3u8https://video.igem.org/videos/embed/dmQRyyunEdrKyNMcn1C2vM1602612023-10-06T13:21:05.326ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oFaqbpKyAPiiSgWhmkBxfhhttps://video.igem.org/lazy-static/thumbnails/d6c2282d-4a37-4ad0-b2d6-df6aee53df0b.jpgMcGill: NGS Pipeline (2023) [English]An animation showing the NGS pipeline. https://2023.igem.wiki/mcgill/ https://static.igem.org/peertube/streaming-playlists/hls/b7a0dc64-c91b-4107-816b-85580719b0c0/1079a1e3-98ac-42f9-b993-fedb691ecded-master.m3u8https://video.igem.org/videos/embed/oFaqbpKyAPiiSgWhmkBxfh1901902023-10-06T14:24:45.313ZScience & TechnologySoftwareYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9L5nS7YZXgNzHTAGew1kcbhttps://video.igem.org/lazy-static/thumbnails/fdb4691a-64d4-4466-abe2-432852b3700f.jpgMcGill: gRNA Pipeline (2023) [English]An animation explaining our gRNA pipeline. https://2023.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/46f08856-0076-48d4-af08-4b6d21781d34/0bd19dc0-b0d7-458f-bcbd-7b22d852f80d-master.m3u8https://video.igem.org/videos/embed/9L5nS7YZXgNzHTAGew1kcb360522023-10-06T14:41:01.808ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mNCniZDP61gFYqyPqVWdEJhttps://video.igem.org/lazy-static/thumbnails/080df92b-68cf-41ac-a5af-5cd8dd00483b.jpgShanghaiTech-China: Preaching to new students (2023) [Chinese]In this exciting "Hello iGEM Freshmen Introduction" event, we introduced the newly enrolled freshmen to the fascinating world of synthetic biology and delved into the essence of the iGEM competition and the importance of teamwork. Through this activity, we not only sparked a strong interest in synthetic biology and the iGEM competition among the freshmen but also showcased the power of teamwork and the opportunities for practical projects. https://static.igem.org/peertube/streaming-playlists/hls/a879661a-3565-4424-bfa8-e445c6f117f6/4f59649b-3c01-4522-a958-3a281f09893b-master.m3u8https://video.igem.org/videos/embed/mNCniZDP61gFYqyPqVWdEJ69042023-10-06T16:14:57.836ZlecturepreachingYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mi7P3cbyQv7A49TDFz259Xhttps://video.igem.org/lazy-static/thumbnails/fd8b0811-83b8-4680-91c4-4f4ab1d0642c.jpgIISc-Bengaluru: Ethics | Ethics in Science, Biomedical Research and Synthetic Biology (2023) [Eng...Today we talk about Ethics. Ethicality demands that humans be treated with more respect than vials of microbes. We are required to go a step beyond the baseline rules of institutions and recognize facets of the participants’ lives, like security, anonymity and welfare. Humans are complex, and we must not lose track of that during our research. In interacting with our stakeholders and participants, we must take into account their preferences and comforts. Surveys must be sensitive to participants emotionally, politically and medically. Our aim must be to collect information while providing them with adequate details to make an informed choice. Transparency is of utmost importance in our synbio endeavours. Speaker: Sheersh Sen Video Credits: Agastasya Gaur Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/a45a9d5e-00ab-4c32-b43d-765a7fd827ef/59135273-822f-47d4-89a5-3d64fc8e05b5-master.m3u8https://video.igem.org/videos/embed/mi7P3cbyQv7A49TDFz259X49042023-10-06T18:27:54.241ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2PF2m4RFqz7C5U6crUEtxHhttps://video.igem.org/lazy-static/thumbnails/dfd02888-0d36-4887-ad09-0c2bdd67a88a.jpgIISc-Bengaluru: Aptides | Novel Class of Peptides | Amino Acids (2023) [English]Today we are here talking about a novel class of peptides synthesized in 2012 by Kim et al, called aptides. They are about 30 amino acids long. Upon maturation, a dissociation rate in nanomolar order can be achieved. Aptides can be conjugated to lipids more easily than antibody fragments and are cheaper to produce, hence will find many applications in the coming years. Speaker: Aditya Video Credits: Agastasya Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/0ec1250e-b114-4d5e-a5b4-3ecb16ced50b/93297339-1bc4-4169-a6e7-cf81cedd6632-master.m3u8https://video.igem.org/videos/embed/2PF2m4RFqz7C5U6crUEtxH40022023-10-06T18:29:36.325ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/iQnxv42PvDcJrcmFKT8YbThttps://video.igem.org/lazy-static/thumbnails/3654bf08-d0d2-48e4-bd61-89b11d0efb8e.jpgIISc-Bengaluru: What is Cell? Cytoplasm, Cell Membrane, Cell Wall, DNA, RNA (2023) [English]We're back with another informative video! Today, we talk about the cell. It is the basic structural and functional unit of all life. It has various elements like the cytoplasm, the ground material in which organelles float; the cell membrane, controlling the transport of materials; the cell wall meant to preserve their structure; and DNA and RNA, constituting the genetic material. Also, cells have three types of transport: Active which uses energy; Passive, which uses carrier; and Diffusion. Speaker: Abhishek Kundu Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/906c55a8-4105-4d5e-930c-5e39d983803f/e0cd912a-7201-444d-8583-54b1b214449e-master.m3u8https://video.igem.org/videos/embed/iQnxv42PvDcJrcmFKT8YbT60032023-10-06T18:31:09.387ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/cppQ5f6Dr5tjCuqoFjQJKAhttps://video.igem.org/lazy-static/thumbnails/9f6562c4-fcd1-4b4c-a277-a4a2e6e84a22.jpgIISc-Bengaluru: Synthetic Biology | Principles, Applications and Challenges of Synthetic Biology ...Join us once more for another informative video, this time on Synthetic Biology. Synthetic Biology is a rapidly developing field that applies engineering principles to the design of biological systems. It uses standardised genetic parts to build genetic circuits that can control the behaviour of cells to perform specific tasks. It has the potential to provide targeted, rapid, and sustainable solutions to significant global challenges, such as climate change and pandemics. But challenges like the accidental release of genetically modified organisms into the environment or the creation of dangerous biological agents also exist. Speaker: Shloak Vatsal Video Credits: Agastasya Gaur Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/5c595128-2714-41e8-a2a5-7f972df5d948/fd0ac347-3cb9-461e-9720-0d4da52b0365-master.m3u8https://video.igem.org/videos/embed/cppQ5f6Dr5tjCuqoFjQJKA54042023-10-06T18:32:40.864ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kjc54jjEv7axbkrCP1quunhttps://video.igem.org/lazy-static/thumbnails/2e2a5d81-d029-42cf-9b47-791cf80671cd.jpgIISc-Bengaluru: The Central Dogma | DNA replication, Transcription, Translation | mRNA, Proteins...Here we are with another informative video! Today's topic is the central dogma. It states that once information has passed into proteins, it is not possible to revert it back to any other form again. In the cell, information is mainly stored or transferred through DNA, RNA and proteins. DNA replication is an essential step required for genetic material to be provided to the progeny of any cell. Transcription is the process by which the information in DNA is replicated into a messenger RNA. Translation occurs when the mRNA attaches to a ribosome to make a protein. Speaker: Aman Sahoo Video Credits: Agastasya Gaur Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/9c67d831-2095-4e4c-bd29-e42a9a91c4fd/343d5166-0678-41f7-b63a-74fba387fe28-master.m3u8https://video.igem.org/videos/embed/kjc54jjEv7axbkrCP1quun57072023-10-06T18:35:40.501ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/r9ngLXLeSiN5sFGCM3bsnPhttps://video.igem.org/lazy-static/thumbnails/e1ecbf4d-0edf-49c3-a679-54db07435b73.jpgIISc-Bengaluru: Plasmids | Bacterial DNA, Genetic Engineering, Synthetic Biology (2023) [English]Plasmids are small, circular DNA molecules mainly found in bacteria. They confer unique properties to their host, like antibiotic resistance and virulence. They replicate independently of the cell and thus are useful in genetic engineering. Researchers artificially insert new genes into these plasmids to obtain gene products called recombinant plasmids or vectors. Speaker: Mayank Video Credits: Agastasya Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/cb9f86a7-152e-40c5-957b-26b8b2572769/74a30ae6-e5e8-41fe-a142-301693c891ba-master.m3u8https://video.igem.org/videos/embed/r9ngLXLeSiN5sFGCM3bsnP60032023-10-06T18:39:43.666ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8TMMf39n8fCigRywPGSD8Uhttps://video.igem.org/lazy-static/thumbnails/bf161693-e8dd-45da-81f8-4d4ecfaefb43.jpgUAlberta: Wiki Logo (2023) [English]UAlberta Wiki Front Page Logohttps://static.igem.org/peertube/streaming-playlists/hls/3feb1da7-9c05-4565-8664-ab114f2d6d2e/f7143bd2-ac7b-40e5-901a-86658d7dc081-master.m3u8https://video.igem.org/videos/embed/8TMMf39n8fCigRywPGSD8U4062023-10-06T21:21:03.690ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3iAFBKaqgt4jU4qhiQJdzehttps://video.igem.org/lazy-static/thumbnails/b472de16-fa95-45bb-a52a-b712a76ff1fd.jpgIISc-Bengaluru: Bacterial Transformation | Competent Cells, Foreign DNA, Plasmid (2023) [English]We're here today telling you about bacterial tranformation, the process by which bacteria take up foreign DNA and incorporate it into their genome. It can occur naturally or be artificially induced in the laboratory. It finds applications in genetic engineering, DNA cloning, and the production of recombinant proteins. It involves preparing bacterial cells to be "competent" to take up DNA, mixing the DNA of interest, and subjecting it to various methods such as chemical transformation, electroporation, and biolistic transformation to facilitate the uptake of the foreign DNA. Speaker: Shloak Video Credits: Agastasya Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/12a74bab-f12c-4cb8-b608-5e9e441b4d67/f0d013ed-dad8-4333-bb0b-4d27167c4202-master.m3u8https://video.igem.org/videos/embed/3iAFBKaqgt4jU4qhiQJdze44022023-10-06T22:06:40.030ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/w3FdX834HSkqSwuFfoPMDWhttps://video.igem.org/lazy-static/thumbnails/6b32c8e5-9b05-4ffe-9667-d94fe2c67f47.jpgIISc-Bengaluru: Lipid Nano Particles | LNPs for mRNA Delivery (2023) [English]Here we are with another informative video! Today we talk about Lipid Nano Particles, that are used to deliver RNA-based therapeutics such as mRNA and siRNA with high efficiency. They consist of 4 components that help in their stability, loading and specificity. They are biocompatible and non-toxic, making them the future of therapeutics. Speaker: Raisa Video Credits: Agastasya Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/f351d1cd-c756-4142-82bc-6d51fae31724/f072e7f6-c63d-404a-9b08-6dcea2161bf0-master.m3u8https://video.igem.org/videos/embed/w3FdX834HSkqSwuFfoPMDW53022023-10-06T22:08:09.004ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jTGVbjuyRBoCuCFpRi1f5xhttps://video.igem.org/lazy-static/thumbnails/0c848b3f-d8af-4b6f-bde9-175b7837a7b1.jpgIISc-Bengaluru: ELISA | Enzyme Linked Immunosorbent Assay | Sandwich, Competitive, Indirect (2023...Enzyme Linked Immunosorbent Assay (ELISA) is a labelled immunoassay based on antigen-antibody interactions. It was invented by Eva Engvall and Peter Perlmann in 1971. There are several variations of this technique like Sandwich, Competitive, Indirect etc. It has been widely applied in Research and in medicine as diagnostic tool for HIV and Covid Speaker: Yukta Video Credits: Agastasya Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/98fca4e1-2f29-4436-b6d1-c6994aac2fef/9cbd23db-8ee5-45b1-9b16-515bd7035ce4-master.m3u8https://video.igem.org/videos/embed/jTGVbjuyRBoCuCFpRi1f5x53052023-10-06T22:10:30.530ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nYf2Yedtoss1QkWZL28Uethttps://video.igem.org/lazy-static/thumbnails/65490657-f2ca-4da5-8e44-258bd41ff47b.jpgIISc-Bengaluru: Biosafety | GMO, Biohazards, Pathogens, Lab Safety (2023) [English]Biosafety refers to the measures taken to prevent the release of potentially harmful biological agents. Protective barriers in labs and proper handling of biological hazards are the key. It becomes of utmost importance when dealing with GMOs and pathogens. It is necessary that the protocols are adhered to in the ongoing research in Synbio. Speaker: Sanika Video Credits: Agastasyahttps://static.igem.org/peertube/streaming-playlists/hls/b1ea3632-c8f7-4a9e-ab51-54e4bac1e845/0fad0f4c-ede4-4e98-8e22-d3abe043c535-master.m3u8https://video.igem.org/videos/embed/nYf2Yedtoss1QkWZL28Uet57042023-10-06T22:12:12.985ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5MifCmnRaA4pWhLau8kauLhttps://video.igem.org/lazy-static/thumbnails/35867be6-a540-4ee3-a948-5e10d56ca453.jpgIISc-Bengaluru: Biobricks | Assembly Standard 10, Restriction Enzymes, DNA, Vector (2023) [English]Today we're telling you about Biobricks. They are DNA sequences of standardized parts used to design and engineer synthetic biological circuits. Their development has allowed for rapid assembly and improved the reliability of systems. Assembly Standard 10, also called the restriction enzyme assembly standard, developed by Tom Knight’s team in 2003, involves every BioBrick being a sequence carried by a circular plasmid called a vector. Standard prefix and suffix sequences are introduced, flanking the 5’ and 3’ ends of the DNA part, respectively, encoding for specific restriction enzyme sites. Speaker: Sohaan Video Credits: Agastasya Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/26b7a805-0a22-4f42-b7f3-3f64c37eccf0/7259ed9c-0c40-48ac-8e30-0c576bca179e-master.m3u8https://video.igem.org/videos/embed/5MifCmnRaA4pWhLau8kauL55062023-10-06T22:13:48.584ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rZh2KnoKu9skz4DbgHPA27https://video.igem.org/lazy-static/thumbnails/cdd3e900-7779-4bb5-a562-dabb332e1800.jpgIISc-Bengaluru: Chassis | Biological chassis. Choice of chassis. E coli, S cerevisiae (2023) [Eng...In synbio, a chassis is a platform acting as a framework for our biological components. A chassis is modified so that it can have functions that it would not normally have. It is chosen based on the project conditions, depending on the properties of the chassis. The most used chassis are E. coli and S. cerevisiae due to their ease of use. Speaker: Vyaas Video Credits: Agastasya Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/d273bd84-fc41-4d68-b120-0d422e774450/732fe75f-4ea0-4f53-b62c-ee4ffe7aabea-master.m3u8https://video.igem.org/videos/embed/rZh2KnoKu9skz4DbgHPA2760012023-10-06T22:22:57.455ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tR7AVXprRwB7KGqdiXz2cphttps://video.igem.org/lazy-static/thumbnails/61122611-cd4a-4913-bfc9-48fa37ec1f27.jpgIISc-Bengaluru: ELISA | Enzyme Linked Immunosorbent Assay | Sandwich, Competitiv... (2023) [English]Enzyme Linked Immunosorbent Assay (ELISA) is a labelled immunoassay based on antigen-antibody interactions. It was invented by Eva Engvall and Peter Perlmann in 1971. There are several variations of this technique like Sandwich, Competitive, Indirect etc. It has been widely applied in Research and in medicine as diagnostic tool for HIV and Covid Speaker: Yukta Video Credits: Agastasya Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/e18241e0-449f-4490-8fc4-799621dc09f1/d317ed2f-cb3b-4a8f-970e-9e3b1a8511c5-master.m3u8https://video.igem.org/videos/embed/tR7AVXprRwB7KGqdiXz2cp51052023-10-06T22:25:17.814ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8eyQygjXHLQi8cM53hcaW9https://video.igem.org/lazy-static/thumbnails/ff799e03-a49b-4ccf-9970-55b1a5e250e4.jpgHKPOLYU: EP：6 New Frontiers in Lung Cancer Treatment (2023) [English]In this episode we are honored to invite Professor Mok Shu Kam,Tony. Professor Mok is an expert in lung cancer biomarkers and molecular target therapies. During the interview, Prof. Mok will share with us his expert knowledge on bispecific antibodies in lung cancer treatment, and how to maintain the safety and efficacy of new drugs. So don't miss this opportunity to gain expert knowledge from this episode! Recorders: QIN Shengjia, Vivian; Le Man Hei, Tiffany Script editor: Hasin Ishraq Podcast editor: Li Chiu Wing, Winniehttps://static.igem.org/peertube/streaming-playlists/hls/3a94e052-8994-4a8a-9239-21bdd5abd500/0649ada8-deed-45b0-b8c3-a3bf22756d00-master.m3u8https://video.igem.org/videos/embed/8eyQygjXHLQi8cM53hcaW9698012023-10-07T02:54:56.003ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2N5MSsaPCr7gscM7JFQ1sKhttps://video.igem.org/lazy-static/thumbnails/3f611eb9-5270-441e-a955-a83be34971cb.jpgHKPOLYU: EP：5 How lung cancer is diagnosed? (2023) [English]In this episode, we are fortunate to interview Dr. Ann Chan, a clinical oncologist, who will share with us how lung cancer is diagnosed, clinical trials, and the best treatment options for lung cancer. Dr. Chan will share her real cancer cases she encountered, as well as some targeted therapies for lung cancer. Recorders: QIN Shengjia, Vivian; Le Man Hei, Tiffany Script editor: Wong Chak Sum, Sam Podcast editor: Li Chiu Wing, Winniehttps://static.igem.org/peertube/streaming-playlists/hls/0e884df7-1f0a-4218-a489-6e37412b203f/be7fd200-0f9d-401a-9c08-a8815eb73e37-master.m3u8https://video.igem.org/videos/embed/2N5MSsaPCr7gscM7JFQ1sK1924002023-10-07T03:17:59.251ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nibWj6XVdQqfsdig4wJiXyhttps://video.igem.org/lazy-static/thumbnails/700c8644-581b-42ef-91f5-591796668ccd.jpgHKPOLYU: EP 4: Exploring the Effectiveness and Impact of NSCLC Therapies (2023) [English]In this episode, we are honored to have Dr. Molly Li join us. We explored and discussed treatment options for the resistance problem in non-small cell lung cancer. The content of this episode will delve into different treatments, examining their efficacy and limitations in detail. Recorders: QIN Shengjia, Vivian; Le Man Hei, Tiffany Script editor: Hasin Ishraq Podcast editor: Li Chiu Wing, Winniehttps://static.igem.org/peertube/streaming-playlists/hls/ac764bb6-a1c2-4ce7-8e81-d3238bb6578a/a12e97e5-247e-4ea3-b3fd-cdfdcceb919a-master.m3u8https://video.igem.org/videos/embed/nibWj6XVdQqfsdig4wJiXy763002023-10-07T06:09:54.426ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pgYBtmVguqe4qagRw7axtVhttps://video.igem.org/lazy-static/thumbnails/6f4a67aa-b105-48bf-9129-dd1effc922ca.jpgHKPOLYU: EP：3 Detecting Early Signs and Taking Action in NSCLC (2023) [English]In this episodes, the hosts will discuss the diagnosis and early detection of non-small cell lung cancer (NSCLC), the most common type of lung cancer. They cover the symptoms of NSCLC, the importance of regular check-ups, and the treatment options available. This episodes emphasises the significance of catching NSCLC early to increase the chances of successful treatment. Recorders: QIN Shengjia, Vivian; Hasin Ishraq Script editor: Wong Chak Sum, Sam; Chow Tsz Ching, Valerie Podcast editor: Li Chiu Wing, Winnie; QIN Shengjia, Vivian Stay tuned for more sharing! Follow our Instagram: igem.polyuhttps://static.igem.org/peertube/streaming-playlists/hls/bc7d3bde-05a5-4a6b-85f1-89c8adaa5cf7/02d105fa-2f62-421b-a80b-a484939d2d5a-master.m3u8https://video.igem.org/videos/embed/pgYBtmVguqe4qagRw7axtV253022023-10-07T06:16:59.675ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/bUsqxpstU8JBXu1ST94LXuhttps://video.igem.org/lazy-static/thumbnails/106eb54a-4482-475e-bfa1-16a632c7627b.jpgHKPOLYU: EP2：COMING challenges in NSCLC treatment (2023) [English]Join us as we delve into the world of lung cancer and the ongoing efforts to find a cure. From understanding the non-small cell lung cancer to exploring the available treatment options, this episode of PolYneer's Podcast offers an informative and insightful discussion on this pressing issue. Don't miss out on this important conversation about lung cancer treatment and the hope for a brighter future from our project. Recorders: QIN Shengjia, Vivian; Hasin Ishraq Script editor: Wong Chak Sum, Sam; Chow Tsz Ching, Valerie Podcast editor: Li Chiu Wing, Winnie; QIN Shengjia, Vivian Stay tuned for more sharing! Follow our Instagram: igem.polyuhttps://static.igem.org/peertube/streaming-playlists/hls/584e58b2-59e8-44d8-b274-3c5185d84b1a/d957f3bb-af41-4a83-aa00-f14afeefb375-master.m3u8https://video.igem.org/videos/embed/bUsqxpstU8JBXu1ST94LXu425012023-10-07T06:23:25.376ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/geKc5Zop8zRGGQtqPPomothttps://video.igem.org/lazy-static/thumbnails/83195b7b-c16b-4636-b1ca-4ee6314bc79f.jpgHKPOLYU: [Mandarin]EP2：NSCLC治療中將面臨的挑戰 (2023) [Chinese]加入我們一起深入探索肺癌世界和尋找治療方法的持續努力。從理解非小細胞肺癌到探索可用的治療選擇，PolYneer的播客節目為這個緊迫問題提供了資訊豐富和富有洞察力的討論。不要錯過這場關於肺癌治療和我們項目為未來帶來更美好希望的重要對話。 旁白：陳子豪 李苠熙 編輯：王澤森 周子晴 翻譯：李超穎 陳子豪 李苠熙 剪接：李超穎 陳子豪 請繼續關注以獲取更多信息！ Instagram：igem.polyuhttps://static.igem.org/peertube/streaming-playlists/hls/7b645dcc-090c-473a-a265-c4f9eb387327/5ce73ccd-1ec6-4a66-9618-14607b9323be-master.m3u8https://video.igem.org/videos/embed/geKc5Zop8zRGGQtqPPomot361002023-10-07T06:26:18.897ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/79FZXCSS7AUhR6mEevDqu7https://video.igem.org/lazy-static/thumbnails/05eb7822-3bbb-43cc-ac25-2c043badcf7a.jpgHKPOLYU: EP 1: What is NSCLC? Is it Curable? Current NSCLC therapy development (2023) [English]In this episode, a silent disease will be introduced to all of you. Want to lift the veil on it? Let's listen to our sharing! Recorders: QIN Shengjia, Vivian; Hasin Ishraq Script editor: Wong Chak Sum, Sam; Chow Tsz Ching, Valerie Podcast editor: Li Chiu Wing, Winnie; QIN Shengjia, Vivian Please follow our podcast channel! Follow our Instagram: igem.polyuhttps://static.igem.org/peertube/streaming-playlists/hls/31cd6ebc-6d9a-45c2-a1eb-12ef73f7fbf6/128f89e4-3fdb-4d11-b4de-166488e13582-master.m3u8https://video.igem.org/videos/embed/79FZXCSS7AUhR6mEevDqu7396002023-10-07T06:27:55.595ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xjU11MBtQwmV9ZvVyqykLQhttps://video.igem.org/lazy-static/thumbnails/e4bd92c7-79e3-4949-a0ea-041bf2690631.jpgIISc-Bengaluru: Symposium on Women's Health | International Day of Action for Women's He... (2023...In this online symposium by IISc iGEM 2023, we learnt about various facets of women's health, on the International Day of Action for Women's Health. We also received important feedback about our project, where we are trying to develop a treatment for endometriosis using synthetic biology this year. Invited Speaker: 6:30 PM: Dr Supraja Chandrasekar Sr Consultant Paediatric Intensivist at DHEE Hospitals Host:Shloak Vatsal 7:15 PM: Dr Poonam Parakh Assistant Professor Department of Obstetrics and Gynecology. Dr SN Medical College, Jodhpur, Rajasthan Host: Aditya K Ammembal 8 PM: Dr Akshata M Kamath Ammembal MBBS Medical intern Host: Sheersh Sen Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/fdaebb8b-d3de-40b3-aee7-b31527d54f14/2333bb81-f4e2-4b08-b6cb-18ceeee75aab-master.m3u8https://video.igem.org/videos/embed/xjU11MBtQwmV9ZvVyqykLQ4350002023-10-07T07:06:35.879ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mL8VU3fSXhScu1xQKKwWmzhttps://video.igem.org/lazy-static/thumbnails/5ced2217-4f75-4c8d-aacc-bda4567ea131.jpgKyoto: Effect of dividers on diffusion of culture medium (2023) [English]Our hardware allows for long-term shaking culture of E. coli. In this video experiment, we examined the effect of a divider introduced into the culture tube on the degree of agitation of the contents. The ink mimics E. coli and other bacteria. Check more on our wiki; https://2023.igem.wiki/kyotohttps://static.igem.org/peertube/streaming-playlists/hls/a82062ba-b46c-424c-aa57-4cd44dda1401/cb7e3ad9-4471-4987-b949-af9295e770a0-master.m3u8https://video.igem.org/videos/embed/mL8VU3fSXhScu1xQKKwWmz340332023-10-07T07:15:04.367ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wWwRnhvkG8FvtdVQW786xAhttps://video.igem.org/lazy-static/thumbnails/757112fa-b04f-4ff8-aa81-fdc1f960ca98.jpgKyoto: Experiment of running drinking bird overnight (2023) [English]To confirm that the DRINKING BIRD, the basis of our hardware, is suitable for long-term incubation, we took videos to confirm that it works properly even overnight. Check out more on our wiki https://2023.igem.wiki/kyoto/https://static.igem.org/peertube/streaming-playlists/hls/fa8f5609-4b46-4529-ae82-ec6a54cdbc94/72da9fc9-7669-48f5-b6b5-62006be550a5-master.m3u8https://video.igem.org/videos/embed/wWwRnhvkG8FvtdVQW786xA230282023-10-07T07:27:59.092ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7evWxBWhwoUuboRbSTPgUchttps://video.igem.org/lazy-static/thumbnails/4c91f4e0-09fe-433e-9029-778efcb7426c.jpgIISc-Bengaluru: Understanding Endometriosis - Dr M Kamath Ammembal | Symptoms, Tr... (2023) [Engl...In this online talk by IISc iGEM 2023, we learnt about endometriosis, a condition affecting 190 million women worldwide. We learnt about the symptoms, treatments, problems and myths related to endometriosis. We also received important feedback about our project, where we are trying to develop a treatment for endometriosis using synthetic biology this year. Invited Speaker: Dr M Kamath Ammembal MD DGO DNB MRC OG Member of the Royal College of Obstetricians and Gynaecologists Host: Shloak Vatsal Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/3279f3d1-a8ee-4500-ac6e-2bb0f67e9cb7/1d6bcdfb-d952-4723-81a7-0c9279fb8a44-master.m3u8https://video.igem.org/videos/embed/7evWxBWhwoUuboRbSTPgUc3149012023-10-07T07:46:59.429ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jZWanbHU6uhiNQLUJxuwUThttps://video.igem.org/lazy-static/thumbnails/73ff50ba-ac43-4aa4-ae94-e62d39bc007b.jpgToulouse-INSA-UPS: Tv report on CALISPO by France 3 Occitanie (2023) [English]We welcomed France 3 Occitanie in our lab. They shooted a short report on us and our project for the regional news programme promoting research on cancer. It was broadcasted on Tuesday 12th of September.https://static.igem.org/peertube/streaming-playlists/hls/99db44da-aabf-478f-9026-e041f94fa6c3/7e16e960-aa31-4519-8001-5cf9b8e05693-master.m3u8https://video.igem.org/videos/embed/jZWanbHU6uhiNQLUJxuwUT1520772023-10-07T09:12:06.938ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nBxaXCRUVADixyWt8wWxsLhttps://video.igem.org/lazy-static/thumbnails/c62f13df-0f0a-4c99-9d62-4824bb5c7ee8.jpgUniMuenster: Home Header (2023) [English]Video on our Home Website. https://2023.igem.wiki/unimuenster/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/af062770-6c05-4bc4-bdf2-dcb9f32872dc/9e647633-d298-45ce-9900-a24fca74a3e1-master.m3u8https://video.igem.org/videos/embed/nBxaXCRUVADixyWt8wWxsL18032023-10-07T11:11:23.516ZHomeMuensterYESiGEM 2023 TeamsNOhttps://video.igem.org/w/o2yALUQf1BrpJoy1ZJRTzrhttps://video.igem.org/lazy-static/thumbnails/9bd21529-4479-4b60-82e5-4dece69f1f63.jpgStockholm: Luci secondary structure (2023) [English]The secondary structure of our NLuc luciferase construct designed to bind microplastic particles. https://2023.igem.wiki/stockholmhttps://static.igem.org/peertube/streaming-playlists/hls/b260e26d-5548-4b34-a410-f656d8bc5aa7/76665306-92f2-40c9-852c-3602a451dcc7-master.m3u8https://video.igem.org/videos/embed/o2yALUQf1BrpJoy1ZJRTzr7032023-10-07T11:30:24.469ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6h8Ng18tKZG5z8cup63n2ohttps://video.igem.org/lazy-static/thumbnails/fc4f4818-0851-456e-8b83-60b008cf7486.jpgStockholm: Luci surface (2023) [English]Showing the surface of the predicted structure for our NLuc luciferase construct. https://2023.igem.wiki/stockholmhttps://static.igem.org/peertube/streaming-playlists/hls/2abe6627-6a67-42ab-add8-51d7f06f5ec4/b36a6f0c-09c8-4b33-8c19-8bff79534554-master.m3u8https://video.igem.org/videos/embed/6h8Ng18tKZG5z8cup63n2o8012023-10-07T11:32:51.828ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3YhwssaBEw9h2r4QNoBCqAhttps://video.igem.org/lazy-static/thumbnails/6ec47f36-0ce8-48d9-b02a-df322102db40.jpgMIT-MAHE: Central Dogma Animation for High School (2023) [English]The Central Dogma of Life is a fundamental concept in biology that explains how genetic information flows within a cell. It consists of three main processes: DNA replication, where the genetic code is copied; transcription, where DNA is used as a template to create RNA molecules; and translation, where RNA is translated into proteins. This flow of information is unidirectional, from DNA to RNA to proteins, and it underpins the molecular basis of life. Understanding the Central Dogma is crucial for comprehending genetics, gene expression, and the mechanisms that govern life's fundamental processes. Watch this video to dive deeper into this essential biological concept. Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/180e1cc6-1334-472b-835a-1590e87452ba/08d386de-adad-497f-a703-eba64e60710b-master.m3u8https://video.igem.org/videos/embed/3YhwssaBEw9h2r4QNoBCqA530562023-10-07T14:30:25.563ZAnimationEducationPublic EngagementHigh SchoolCentral DogmaYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3RPWsG3ZL86jmHWRYMwnwNhttps://video.igem.org/lazy-static/thumbnails/f9f71239-00d9-46b2-9388-da5677b0aec1.jpgIISc-Bengaluru: Understanding Endometriosis - Dr Shilpa Rao | Personal Experience, Treatments (20...In this online talk by IISc iGEM 2023, we learnt about endometriosis, a condition affecting 190 million women worldwide. We learnt about the personal experience, stigma, problems, symptoms, treatments, and myths related to endometriosis. We also received important feedback about our project, where we are trying to develop a treatment for endometriosis using synthetic biology this year. Invited Speaker: Dr Shilpa Rao Dental Surgeon, Endometriosis Advocate, Founder Endostrongg Host: Yukta S Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/172743f7-17f6-47c4-a711-58917336acae/acafea34-edee-4d7b-9f78-95910623eb76-master.m3u8https://video.igem.org/videos/embed/3RPWsG3ZL86jmHWRYMwnwN1699002023-10-07T15:39:18.968ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4ZZQHZ3ZLGH6YxtoF2Me7fhttps://video.igem.org/lazy-static/thumbnails/ffec106e-cba3-45b8-8657-737d666eff1d.jpgIISc-Bengaluru: Understanding Endometriosis - Dr Abhishek Mangeshikar | Surgeries, Treatments (20...In this online talk by IISc iGEM 2023, we learnt about endometriosis, a condition affecting 190 million women worldwide. We learnt about the problems, symptoms, treatments, surgeries and myths related to endometriosis. We also received important feedback about our project, where we are trying to develop a treatment for endometriosis using synthetic biology this year. Invited Speaker: Dr Abhishek Mangeshikar MBBS, MS (Obs&Gyn), Dip. MAS, FMIGS Consultant, Gynaecology & Obstetrics Founder and Director – ICE (The Indian Centre for Endometriosis) Host: Shloak Vatsal Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/206474c1-7d79-4182-8e3e-6edaa3e3cdb6/8d0e3ca4-9582-4fae-bc11-7aca9548a9b0-master.m3u8https://video.igem.org/videos/embed/4ZZQHZ3ZLGH6YxtoF2Me7f2718032023-10-07T15:39:16.272ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gVcNmxSYmKPVME2bCZ1oZdhttps://video.igem.org/lazy-static/thumbnails/427fab2d-6efb-492a-9052-e92009fedf77.jpgIISc-Bengaluru: Understanding Endometriosis - Dr Hemant Kanojiya | Symptoms, Treatments (2023) [E...In this online talk by IISc iGEM 2023, we learnt about endometriosis, a condition affecting 190 million women worldwide. We learnt about the problems, symptoms, treatments, surgeries and myths related to endometriosis. We also received important feedback about our project, where we are trying to develop a treatment for endometriosis using synthetic biology this year. Invited Speaker: Dr Hemant Kanojiya MD DNB MNAMS Pelvic Endoscopic Surgeon Director, EXCELLENDOCARE Host: Shloak Vatsal Wiki: https://2023.igem.wiki/iisc-bengaluru/https://static.igem.org/peertube/streaming-playlists/hls/80e6c56f-811b-4ca0-b799-acc62d3a3e1e/8e62f662-4a49-43c6-a0d4-7f7694d98cce-master.m3u8https://video.igem.org/videos/embed/gVcNmxSYmKPVME2bCZ1oZd3271002023-10-07T15:39:13.848ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rnf19NBpWaUzYxuuSSF5tLhttps://video.igem.org/lazy-static/thumbnails/db9f6d0f-8c89-480b-bacc-83caf713c0db.jpgOUC-China: Part1 MEL synthesis system (2023) [English]OUC-China: Part1 MEL synthesis system (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/cd6bb710-13c7-45f9-b7aa-ea6555e67552/0ab88dd2-b5a4-4878-b209-bef7099bef43-master.m3u8https://video.igem.org/videos/embed/rnf19NBpWaUzYxuuSSF5tL130262023-10-07T16:05:01.700ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hn81cjcTuVqEqmJu8VfPs1https://video.igem.org/lazy-static/thumbnails/ba64399b-e1e2-4a76-8bbb-165e415bdeac.jpgOUC-China: Part2：Medium chain fatty acid derivatives synthesis system (2023) [English]Medium chain fatty acid derivatives synthesis system https://2023.igem.wiki/ouc-china/designhttps://static.igem.org/peertube/streaming-playlists/hls/84852759-42b6-4e42-b4a6-b6a24392bd60/a73bac9e-f64e-4afb-a8e3-9a2000be237d-master.m3u8https://video.igem.org/videos/embed/hn81cjcTuVqEqmJu8VfPs1210192023-10-07T16:15:18.504ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kH7vSnh944Ln7Wfs1UAtwbhttps://video.igem.org/lazy-static/thumbnails/4c842060-bb4c-47dc-bc24-96f2cf97c8e4.jpgAthens: index (2023)It is the video on the index page.https://static.igem.org/peertube/streaming-playlists/hls/9f9b24e4-0225-4fcf-96a6-0a4094b435b2/4c5e15cd-0473-4eb7-a504-f87d991a8090-master.m3u8https://video.igem.org/videos/embed/kH7vSnh944Ln7Wfs1UAtwb18062023-10-07T16:15:11.600ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/g8E5SFme4oYYtwsoJ6ocfthttps://video.igem.org/lazy-static/thumbnails/1d08edca-683f-476b-a539-5d28b63f3310.jpgOUC-China: Part3Benzopyrene degradation system (2023) [English]Benzopyrene degradation system https://2023.igem.wiki/ouc-china/designhttps://static.igem.org/peertube/streaming-playlists/hls/7a8ac1a3-ec2a-465f-aea6-708492e7b753/4935d446-e232-4e67-9a55-080615f8e564-master.m3u8https://video.igem.org/videos/embed/g8E5SFme4oYYtwsoJ6ocft200372023-10-07T16:18:20.605ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dRYQ3yuPAJKahsbntsuFBZhttps://video.igem.org/lazy-static/thumbnails/4ee51f72-2b8c-47c2-9bec-bbd7b29271a8.jpgOUC-China: Part4 Safety switch (2023) [English]Safety switch https://2023.igem.wiki/ouc-china/designhttps://static.igem.org/peertube/streaming-playlists/hls/6828215f-7bfc-4a95-93cc-201e0b6182c3/c38aacad-51c8-499c-8005-c590a546b918-master.m3u8https://video.igem.org/videos/embed/dRYQ3yuPAJKahsbntsuFBZ230442023-10-07T16:21:23.845ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xsQs7zUf6kJefBc7puu3adhttps://video.igem.org/lazy-static/thumbnails/129e2101-82b3-4ef2-919d-247f99d20edd.jpgMunich: Science in Spotlight (2023) [English]iGEM Team Munich interviewed B cell expert Prof. Julia Jellusova from TranlsaTUM at Technical University of Munich - we talked about her research, which has been vital for our project, her thoughts on the iGEM Competition and tips for asprining scientists. Find out more on our wiki: https://2023.igem.wiki/munich/https://static.igem.org/peertube/streaming-playlists/hls/feca7eb8-1ba6-4868-8703-26aba373d3de/b3eceb35-ca9d-4777-a8d6-8f220eb6d4e6-master.m3u8https://video.igem.org/videos/embed/xsQs7zUf6kJefBc7puu3ad1110042023-10-07T17:14:09.539ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6Tw2gfw73ChG3F52L2BiLdhttps://video.igem.org/lazy-static/thumbnails/ba148cea-06ae-4f75-9290-0e70fb0265fe.jpgCCU-Taiwan: CTC FAST Device (2023) [English]Experimental CTC FAST detection device https://2023.igem.wiki/ccu-taiwan/descriptionhttps://static.igem.org/peertube/streaming-playlists/hls/2faf208c-a41c-4f8a-9e7b-0536d8a16cb0/222597fa-1a73-47f3-9f07-db42b8a37b31-master.m3u8https://video.igem.org/videos/embed/6Tw2gfw73ChG3F52L2BiLd420442023-10-07T18:20:51.717ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kX75CLWmMvd58AYfwuG7rYhttps://video.igem.org/lazy-static/thumbnails/4e078422-aaaf-476a-ace8-43356fc01556.jpgToulouse-INSA-UPS: CALISPO locals (2023) [English]3D modelisation with Sketchup of the office and labs necessary to pursue the CALIPSO project in the future. https://static.igem.org/peertube/streaming-playlists/hls/a18f49ec-2767-400f-9778-5f61a4b51cfa/6a36e195-b8bb-4849-9ee4-7c37a9647428-master.m3u8https://video.igem.org/videos/embed/kX75CLWmMvd58AYfwuG7rY190792023-10-07T21:32:49.897ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fyKeKgZefS5zw78yLsQrtfhttps://video.igem.org/lazy-static/thumbnails/8d212b9c-79a7-47db-86b0-6f17f78e3f2d.jpgHamburg: Home_animation_S-screen (2023)iGEM Team Hamburg 2023 - transFERRITIN https://2023.igem.wiki/hamburg/ Designer: Joel Senador (Team Member) Actor: Lennert Weber (Team Member)https://static.igem.org/peertube/streaming-playlists/hls/75f2633b-ab5c-4ec3-858c-1e8c44a7e8d0/863e250a-102e-4e40-8e50-03561cf15983-master.m3u8https://video.igem.org/videos/embed/fyKeKgZefS5zw78yLsQrtf14052023-10-07T21:27:28.284ZtransFERRITINWiki VideoHamburgYESiGEM 2023 TeamsNOhttps://video.igem.org/w/bC2JSUtw3vsVrmYCNzyTkHhttps://video.igem.org/lazy-static/thumbnails/abbfe74c-d5b6-4153-adf8-8581bf516482.jpgHamburg: Home_transFERRITIN_animated (2023)iGEM Team Hamburg 2023 - transFERRITIN https://2023.igem.wiki/hamburg/ Designer: Joel Senador (Team Member)https://static.igem.org/peertube/streaming-playlists/hls/56033bf3-6df5-4d69-af1d-c163f63d1873/22fed667-390a-410c-8a19-89cee31fe14c-master.m3u8https://video.igem.org/videos/embed/bC2JSUtw3vsVrmYCNzyTkH1008282023-10-07T21:29:19.064ZtransFERRITINHamburgYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4r3s9Mg5gC8YpQpJvJvWuEhttps://video.igem.org/lazy-static/thumbnails/0b36410b-b89e-40bd-978b-b1148f26df6a.jpgPatras: Cancer Survivor Day (2023)On occasion of Cancer Survivor Day, we present to you a collaboration video, with cancer survivors from all over the world🌍 We'd like to extend our sincere thanks to the cancer survivors and the participating teams: iGEM UGM, iGEM UI, iGEM Düsseldorf, iGEM Bulgaria, Patras Med🔬 #cancersurvivorday #cancersurvivor #interview #cancer #igemhttps://static.igem.org/peertube/streaming-playlists/hls/1bca8548-cceb-4542-a5dc-118149a9705e/f110b198-2533-4005-906c-cf4fb2f5cde5-master.m3u8https://video.igem.org/videos/embed/4r3s9Mg5gC8YpQpJvJvWuE737032023-10-07T22:03:29.777ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nSVqPy4V1b3EF8GR6Rphruhttps://video.igem.org/lazy-static/thumbnails/90794b40-202d-411c-906b-d2a3976ae8ce.jpgOUC-China: Cross helicity(change) - velocity shear diagram (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/b12c06c8-1ab0-4078-a51c-e8134913790e/b5304e40-7b2e-4892-bc26-8cc7cbaa9f4f-master.m3u8https://video.igem.org/videos/embed/nSVqPy4V1b3EF8GR6Rphru10062023-10-08T04:42:13.730ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9kBEV94U4YFfy6P1Ht8hSkhttps://video.igem.org/lazy-static/thumbnails/824099b0-73e6-42b5-95de-a25221304a20.jpgOUC-China: Cross helix - trajectory animation (1) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/43863953-2eb2-4a12-bf51-0f67a5ec2e8f/86c1ee58-e497-4cdc-87f4-03a4429891da-master.m3u8https://video.igem.org/videos/embed/9kBEV94U4YFfy6P1Ht8hSk100192023-10-08T04:43:09.853ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/bAyUFtXbi2D99J4Vjg3bjthttps://video.igem.org/lazy-static/thumbnails/70efb6d2-60df-4281-a5f6-63f8ad7fa04f.jpgOUC-China: Cross helix - trajectory animation (2) (2023) [English]OUC-China: Cross helix - trajectory animation (2) (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/55cef48a-28c5-4918-88ea-a27157d621d7/15cb7663-3fdd-4b26-b2df-134958221f40-master.m3u8https://video.igem.org/videos/embed/bAyUFtXbi2D99J4Vjg3bjt100172023-10-08T04:43:54.473ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/b5mTnLtZfTaaFv6dkuMGwyhttps://video.igem.org/lazy-static/thumbnails/fd011ea9-4dc1-48df-b7ef-3e4b7face749.jpgOUC-China: Twin contra-rotating propeller blade helix immiscible soybean oil - velocity isosurfac...https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/51973ba5-de3b-4448-86d1-c7228f85c4b4/45cbbf78-6e51-4517-8676-21a36a9ff811-master.m3u8https://video.igem.org/videos/embed/b5mTnLtZfTaaFv6dkuMGwy10012023-10-08T04:45:15.192ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ku4bG6b1FQM5hJ9EorQrechttps://video.igem.org/lazy-static/thumbnails/27735d91-6213-4334-99dc-fd451a06afeb.jpgOUC-China: Twin contra-rotating propeller blade helix trajectory simulation (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/9dc86c29-d73c-4b3f-a10f-1641f2f5b8d1/5fbe7a75-8952-4d8a-9c96-15714c7f04f3-master.m3u8https://video.igem.org/videos/embed/ku4bG6b1FQM5hJ9EorQrec10062023-10-08T04:45:55.305ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xw5FLPCLakfCexL99PqRd2https://video.igem.org/lazy-static/thumbnails/90556281-a146-40b0-adde-4b9b99826724.jpgOUC-China: Twin contra-rotating propeller blade helix trajectory simulation (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/ff3e7fce-b875-49b0-92a5-7efe991dae4d/cdd151e6-f413-451d-adaf-bb63ed16a529-master.m3u8https://video.igem.org/videos/embed/xw5FLPCLakfCexL99PqRd210062023-10-08T04:46:42.034ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/p7j211aqs2PLT3z1g8ayxChttps://video.igem.org/lazy-static/thumbnails/22af6a26-ed25-4e50-9837-7fb61b94fdca.jpgOUC-China: Cross helix immiscible soybean oil - velocity isosurface (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/bb23c15c-a316-4c61-90f5-2d62c57f3962/06b2aec7-c967-46d5-a3cb-f9ecdda0c2cd-master.m3u8https://video.igem.org/videos/embed/p7j211aqs2PLT3z1g8ayxC100162023-10-08T04:47:24.339ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7xNMqhJ5E7RXTd9F4D4yP3https://video.igem.org/lazy-static/thumbnails/a5b012cc-a6ba-4e52-99a3-309f3bffc775.jpgOUC-China: Cross helix modification immiscible soybean oil - velocity isosurface (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/3507b84d-3f3c-4898-9bb2-12a4c0a74790/c85d9d59-2d98-4fc7-b8a8-6cafcaf8885c-master.m3u8https://video.igem.org/videos/embed/7xNMqhJ5E7RXTd9F4D4yP310052023-10-08T04:48:06.941ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/s1yS5p35KnbCzsN7r4PgNRhttps://video.igem.org/lazy-static/thumbnails/b6436634-6d47-49fb-892c-48dd53a6b249.jpgOUC-China: Cross helix modification (change)- flow trajectories (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/d2a1dba1-9df6-41b7-9c33-a8f68e786d61/0139265f-061a-4ea5-8309-bec6ed5e5a89-master.m3u8https://video.igem.org/videos/embed/s1yS5p35KnbCzsN7r4PgNR100152023-10-08T04:48:55.454ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/51PRbDosXCFcXMSgz4dBJ4https://video.igem.org/lazy-static/thumbnails/c0daea6f-2eb2-4315-b8a1-2e233cd48d03.jpgTsinghua: Homepage (2023)This is the homepage video for Tsinghua 2023 Wiki. Our wiki url is https://2023.igem.wiki/tsinghuahttps://static.igem.org/peertube/streaming-playlists/hls/20820ac1-5738-4c87-ab21-04864310d1e3/ae1b3bb6-d01e-446f-9baa-6124706a7fe1-master.m3u8https://video.igem.org/videos/embed/51PRbDosXCFcXMSgz4dBJ4190122023-10-08T06:06:50.331ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pHDKiKS5EadxjtV7x8XZfghttps://video.igem.org/lazy-static/thumbnails/ecf408a3-9eba-4263-a74a-068bb2328e3d.jpgSZU-China: beads can degrade (2023) [English]Calcium alginate-engineered bacterial condensation beads can degrade in soil within 40 hours.https://static.igem.org/peertube/streaming-playlists/hls/c012f22a-0b17-40eb-9c2f-28c59711b5a7/51da21ba-cb98-43df-bdcf-1015b8fd4265-master.m3u8https://video.igem.org/videos/embed/pHDKiKS5EadxjtV7x8XZfg320592023-10-08T09:47:20.637ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/w7FCwSNMtKBF5YaG74NTzAhttps://video.igem.org/lazy-static/thumbnails/ba91802e-b277-4e43-a1f7-8a1af4900fc2.jpgNYU-Abu-Dhabi: Opentron workshop (2023) [English]In this video, one of our team members, Sanshika, shows the way Opentrons OT-2 Pipetting Robot works. To learn more about our project, visit our wiki page: https://2023.igem.wiki/nyu-abu-dhabi/https://static.igem.org/peertube/streaming-playlists/hls/f3e10b91-cea8-490e-a624-19a9ea3c3e68/6a80149e-e775-4125-a10a-97bfa4d3faff-master.m3u8https://video.igem.org/videos/embed/w7FCwSNMtKBF5YaG74NTzA18072023-10-08T09:59:09.234ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7RQN1QN1zzZASGtc554Afbhttps://video.igem.org/lazy-static/thumbnails/cab2d2d1-3e9e-4226-a7f3-be2db75c4c0c.jpgNYU-Abu-Dhabi: Virtual Lab (2023) [English]This is the virtual lab that our team created on the STYLY platform. You can see the place where our team spent most of the time discussing the project and performing the experiments. We hope that every viewer can have an opportunity to be transported to our lab with the use of cutting-edge technology. To learn more about our project, visit our wiki page: https://2023.igem.wiki/nyu-abu-dhabi/https://static.igem.org/peertube/streaming-playlists/hls/378c58be-deaf-4e22-9689-40bd962a3776/d80d23cc-5210-49fc-bcce-17f148608c55-master.m3u8https://video.igem.org/videos/embed/7RQN1QN1zzZASGtc554Afb720112023-10-08T10:22:11.514ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7jhHjnMPi4VA3F6WhQv7RNhttps://video.igem.org/lazy-static/thumbnails/cc4475b0-3273-4a4c-8873-171ce6444953.jpgNYU-Abu-Dhabi: Tabling Event (2023) [English]We organized a tabling event on our campus to share more information about the synthetic biology competition, how to join next year's team and show the VR lab. To learn more about our project, visit our wiki page: https://2023.igem.wiki/nyu-abu-dhabi/https://static.igem.org/peertube/streaming-playlists/hls/332484e8-ca88-4bfc-b06f-6fad31f87ea8/6c8b009a-f0a3-49ec-b547-b841f796d619-master.m3u8https://video.igem.org/videos/embed/7jhHjnMPi4VA3F6WhQv7RN33032023-10-08T10:35:22.852ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/cTn2RhWPFJodQ9DYHVQYWDhttps://video.igem.org/lazy-static/thumbnails/41a8f88b-9a77-42f5-b4e9-cc6be514a0f3.jpgNTHU-Taiwan: are-you-sleeping-classical-a-123605 (2023)Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/60406b3c-b771-41f4-acb8-90355fb60931/295d0173-2dba-4358-bf35-37bf59d9dba5-master.m3u8https://video.igem.org/videos/embed/cTn2RhWPFJodQ9DYHVQYWD37012023-10-08T14:03:27.027ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8dsrmhMWDM1VtQnhnZeGqWhttps://video.igem.org/lazy-static/thumbnails/0926cf6f-c720-427f-bde2-4ded237bad67.jpgNYU-Abu-Dhabi: Synthetic Biology Trivia Night (2023) [English]In this video, you can see participants of our Trivia Night trying to figure out the answer - still, it took them only 20 seconds to reply! To learn more about our project, visit our wiki page: https://2023.igem.wiki/nyu-abu-dhabi/https://static.igem.org/peertube/streaming-playlists/hls/3a6d3033-28d8-4be3-b3ac-228fb073087e/ce0a1333-b048-4bea-9733-b7e98badda5d-master.m3u8https://video.igem.org/videos/embed/8dsrmhMWDM1VtQnhnZeGqW9022023-10-08T14:06:26.838ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/d22XXJTgsN44CgLMfn92tPhttps://video.igem.org/lazy-static/thumbnails/4c53d696-334e-43e7-9ab9-670efbfb0ee8.jpgMIT-MAHE: Our solution for degrading TCC (2023) [English]A graphical representation of our solution created for science communication for Middle Schools. Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/61529e5a-85e2-4cc2-b4d3-c3eca19e6801/12ca0611-518f-45d0-afbe-9ab38a98a965-master.m3u8https://video.igem.org/videos/embed/d22XXJTgsN44CgLMfn92tP27072023-10-08T14:21:35.312ZDegradationEducationBioremediationSolutionAntimicrobialYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2A8eKqxgZ64qeeijw16D9Vhttps://video.igem.org/lazy-static/thumbnails/47da9ec5-1e73-44f0-b1c3-4d0355312b14.jpgMIT-MAHE: Chemicals in our daily used products (2023) [English]A graphical representation of chemicals in our daily used products created for our education outreach Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/0cdce307-2ac2-4a59-9b11-9ad989017dc1/14e1b8de-23ed-4b2b-918f-b9bac51f64fb-master.m3u8https://video.igem.org/videos/embed/2A8eKqxgZ64qeeijw16D9V12052023-10-08T14:24:46.787ZGraphicsDaily used productsEducationPPCPChemicalsYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hDEmQqGVPiYohxpCWa5E6nhttps://video.igem.org/lazy-static/thumbnails/d7bcf757-7484-4a13-85dd-66fdc9a801fb.jpgMIT-MAHE: Why antimicrobials are bad for you? (2023) [English]A graphical representation of why antimicrobials are bad for us created for our education outreach Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/86d460b4-f00c-425d-adf0-4c6a309f9bff/9506fcee-6384-475a-b84f-8b0698c9fe0b-master.m3u8https://video.igem.org/videos/embed/hDEmQqGVPiYohxpCWa5E6n15072023-10-08T14:28:54.211ZHarmfulBioremediationGraphicsEducationAntimicrobialsYESiGEM 2023 TeamsNOhttps://video.igem.org/w/c7vmZysi4VUPx52ac1vVwwhttps://video.igem.org/lazy-static/thumbnails/e40a3770-9b29-4d3f-b01c-0d03786951c1.jpgMIT-MAHE: Music Composition of Amidase (2023) [English]Proteins are made of amino acids. There are 20 amino acids, each with an alphabetical letter assigned to it. What if you represented them as musical notes instead of alphabets? Presenting to you, our novel amidase protein in the form of a beautiful musical composition! Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/59fd1533-80ac-4416-bb5c-2a6e73795c86/23fd9233-a9f1-4fd3-b1f7-730bcee89948-master.m3u8https://video.igem.org/videos/embed/c7vmZysi4VUPx52ac1vVww90092023-10-08T14:41:18.410Zmusicproductionsoundengineeringaminoacid#protein syntheticbiologyYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1MojsaSmfNQdo8PQC6yxQDhttps://video.igem.org/lazy-static/thumbnails/145d1aa4-ce55-488f-baa3-65fafbb0dd64.jpgNTHU-Taiwan: NTHUIGEM (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/06563943-4652-4bb2-9ec8-aeac77dcffb1/e6c403ce-4f79-4323-85fb-1184bfcbdbd8-master.m3u8https://video.igem.org/videos/embed/1MojsaSmfNQdo8PQC6yxQD25022023-10-08T14:48:10.447ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hFdUwtKU5rt4gdHHysbysbhttps://video.igem.org/lazy-static/thumbnails/f32a345d-50c7-40f5-b76f-7e4ef6b8a57a.jpgNTHU-Taiwan: new-level (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/870c2dd0-0b8d-462b-a54c-6640a8648c5e/af59d53a-80c2-4391-9b49-9a3bee52a2ee-master.m3u8https://video.igem.org/videos/embed/hFdUwtKU5rt4gdHHysbysb4002023-10-08T14:50:08.146ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mXS2g31nrrdTdMGb4JydF4https://video.igem.org/lazy-static/thumbnails/ab59341b-09c7-44fd-91d1-964e8c75558b.jpgNTHU-Taiwan: negative_beeps (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/a9c381ed-1c1d-4e56-ac50-aea434ca1489/2d5fb6b3-073e-4872-aa4d-c324841b36e7-master.m3u8https://video.igem.org/videos/embed/mXS2g31nrrdTdMGb4JydF43012023-10-08T14:52:14.909ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dkcVYL96LbKVDeD4isfHy8https://video.igem.org/lazy-static/thumbnails/6370ce2a-9112-4ad4-8df3-7eef3f22bf54.jpgNTHU-Taiwan: message-incoming (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/63dc25e8-d79d-4e4f-a2ba-b3e22b14e5bb/5c7aeb35-c749-4353-a8e3-df7b7b22f2b3-master.m3u8https://video.igem.org/videos/embed/dkcVYL96LbKVDeD4isfHy83002023-10-08T15:01:09.567ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hVSA64oetWyy4An9pZEhPYhttps://video.igem.org/lazy-static/thumbnails/61c587a0-97c2-42e8-ba61-9c3a608c525b.jpgNTHU-Taiwan: life-of-a-wandering-wizard-15549 (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/8917d06c-6800-4160-af7c-fc907458577e/17513355-6da6-4d6d-832b-c02c951208ef-master.m3u8https://video.igem.org/videos/embed/hVSA64oetWyy4An9pZEhPY150012023-10-08T15:02:39.454ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/u8pT4icTHp3q1FypMK1R4Shttps://video.igem.org/lazy-static/thumbnails/a984cdd7-b183-4c5e-b1b5-1f0b2302b5e4.jpgNTHU-Taiwan: level4-background-music (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/e3c8ce3d-35f7-4731-a4b0-d9f884994a54/97640179-794b-4d00-88d7-c3c66169467c-master.m3u8https://video.igem.org/videos/embed/u8pT4icTHp3q1FypMK1R4S114002023-10-08T15:04:33.555ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/v2Lwre3Z76EtwG4XQLtKYChttps://video.igem.org/lazy-static/thumbnails/f10a2dc8-d46b-4d0c-89c3-624e3ee590b5.jpgNTHU-Taiwan: level3-background-music (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/eb18344a-1822-4401-8564-1233c8dda818/0adfbad7-ede2-48d4-ae55-cb86d25c6796-master.m3u8https://video.igem.org/videos/embed/v2Lwre3Z76EtwG4XQLtKYC155002023-10-08T15:06:07.284ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aBYt2iZRfQMNVz8TZHfrsUhttps://video.igem.org/lazy-static/thumbnails/49fc2bbc-4b01-4875-be0a-bdb9afde594c.jpgNTHU-Taiwan: teamsong (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/4de81407-9fd5-437e-bedd-5f2a2f6ef03c/9a070a83-d367-4288-a964-efd91b649797-master.m3u8https://video.igem.org/videos/embed/aBYt2iZRfQMNVz8TZHfrsU23012023-10-08T15:31:46.293ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oZwam3CEKJZyWd2hk2NnKshttps://video.igem.org/lazy-static/thumbnails/19979671-1d71-4064-9b9c-14aa7fad6f31.jpgNTHU-Taiwan: jump - Copy (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/ba310869-fd84-49a6-9d52-9715b434776c/16da0439-8971-469a-ad3b-c6a60c12aac3-master.m3u8https://video.igem.org/videos/embed/oZwam3CEKJZyWd2hk2NnKs3012023-10-08T15:36:24.408ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hTAzoQMSHGkCSxeyxBumtyhttps://video.igem.org/lazy-static/thumbnails/c5dec093-7ac5-42b3-8fd2-115be1ba9f43.jpgNTHU-Taiwan: level1-background-music - Copy (2023) [English]Music use for NTHU Taiwan Wiki game!https://static.igem.org/peertube/streaming-playlists/hls/88c6757a-3864-4413-a324-94e712537c7e/adeb444b-a0a0-4065-be76-e38e5081e564-master.m3u8https://video.igem.org/videos/embed/hTAzoQMSHGkCSxeyxBumty87022023-10-08T15:37:35.725ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7XUcJE4KLKKFh3ujGhd521https://video.igem.org/lazy-static/thumbnails/9199551e-3df6-4652-baa8-3e471f09946f.jpgNTHU-Taiwan: Hibarbie (2023) [English]Our partnershiphttps://static.igem.org/peertube/streaming-playlists/hls/3864e8ff-13b9-4398-a775-6ceb8c5c7d2a/6ee2d43c-fc66-4026-9c3c-391cd8086cfc-master.m3u8https://video.igem.org/videos/embed/7XUcJE4KLKKFh3ujGhd52113072023-10-08T15:45:32.698ZNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5feJFE9qW8wuW5rbFwVFPkhttps://video.igem.org/lazy-static/thumbnails/aa908865-ad9c-49b7-a9f7-0b04197b1d07.jpgNJTech-China-A: HP总结 (2023) [English]https://2023.igem.wiki/njtech-china-a/human-practiceshttps://static.igem.org/peertube/streaming-playlists/hls/22616eb7-6054-484d-b1ba-b63e66577dbd/542e70e4-3735-4627-90c4-9fae8029be7a-master.m3u8https://video.igem.org/videos/embed/5feJFE9qW8wuW5rbFwVFPk830132023-10-08T15:47:41.133ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qeteTXbVkt8vJu3i1canAYhttps://video.igem.org/lazy-static/thumbnails/04926642-7a6f-4217-bc98-e0ad5c1d118e.jpgNTHU-Taiwan: NTHU x NYCU Podcast collaboration (2023) [English]Partnership with NYCU Formosa (Podcast collaboration) NYCU Formosa Youtube link:https://www.youtube.com/watch?v=iwBSoX5krIEhttps://static.igem.org/peertube/streaming-playlists/hls/c43cc8a9-9e56-464c-a660-7390ba4d5238/dd8e373a-1660-4a0a-885d-05a2a697147e-master.m3u8https://video.igem.org/videos/embed/qeteTXbVkt8vJu3i1canAY746022023-10-08T16:54:53.771ZNYCU_FormosaNTHU_TaiwanYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mvjYgTgdACe2AfiMTA7bKihttps://video.igem.org/lazy-static/thumbnails/dd856d80-a0b6-4307-ae33-2b8e8b226dd9.jpgOUC-China: Double straight turbine blades (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/a60f0889-f2a0-4ed1-91ff-762140a9cee7/e14ab379-5c7a-436f-a063-a65917f830a3-master.m3u8https://video.igem.org/videos/embed/mvjYgTgdACe2AfiMTA7bKi62002023-10-08T16:01:22.950ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rxAtjHLMakkdrcdhvWELWYhttps://video.igem.org/lazy-static/thumbnails/2378847d-b934-4d72-a0bb-4d6d2e38595f.jpgOUC-China: Six-blade spiral (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/ceddc455-7352-491f-a96f-e37981acf414/fafb0467-2466-4496-8c6c-d7d9fe4eb184-master.m3u8https://video.igem.org/videos/embed/rxAtjHLMakkdrcdhvWELWY640182023-10-08T16:02:37.550ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tQ9EJBb3NzRrQa12NfDoDThttps://video.igem.org/lazy-static/thumbnails/92b35e64-c0f0-449c-bc23-016a93012422.jpgOUC-China: Upper straight six-blade spiral lower straight plate turbine (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/e15fc959-ac54-4428-86e4-d86f67ff1655/aa1a550f-3a9d-49c9-8c5f-a79215f40c66-master.m3u8https://video.igem.org/videos/embed/tQ9EJBb3NzRrQa12NfDoDT60032023-10-08T16:03:28.902ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fi64Q9qxM3EM63zAwKr5UYhttps://video.igem.org/lazy-static/thumbnails/0e3cb7c7-cdad-4a10-b7d7-5e360c3bbcfd.jpgOUC-China: Upper straight turbine lower reverse six-blade spiral (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/73c2b517-3708-4fdc-979b-054bb9a37fe8/a878c2c2-28ab-42ab-b695-53f2a0f4565e-master.m3u8https://video.igem.org/videos/embed/fi64Q9qxM3EM63zAwKr5UY62062023-10-08T16:04:19.228ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4vZLLfbwYtRmSithSqR28phttps://video.igem.org/lazy-static/thumbnails/d4119e12-e39a-4f21-9a84-a2e5ecdacc04.jpgOUC-China: Double reversed six-blade spiral (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/1c7b96a3-5ae9-479c-9a5d-264838532fb9/678399ae-41e3-45e4-a3d5-4479913e0a2e-master.m3u8https://video.igem.org/videos/embed/4vZLLfbwYtRmSithSqR28p600212023-10-08T16:05:02.508ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aqord5QVLAmeZMpDiEBLVChttps://video.igem.org/lazy-static/thumbnails/180266cf-8680-40a9-b60c-a6b6ba66edd2.jpgOUC-China: Inverted six-blade spiral (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/4c49ec9b-a114-45f2-9884-d1c14858658e/b408fd95-a736-40fa-a714-aa9961e1a2eb-master.m3u8https://video.igem.org/videos/embed/aqord5QVLAmeZMpDiEBLVC60052023-10-08T16:06:02.419ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ikjoNoMDF1ske5cdM6Xi8dhttps://video.igem.org/lazy-static/thumbnails/80350152-96af-4012-a941-41edb494f624.jpgOUC-China: IUpper reverse six-blade spiral lower straight plate turbine (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/8c5dd2f1-bf07-41c3-8558-a81db79e9e8e/ae357a80-3db2-42e5-91c2-95e3b6edea14-master.m3u8https://video.igem.org/videos/embed/ikjoNoMDF1ske5cdM6Xi8d620102023-10-08T16:07:12.499ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7DeQWPoCxNEXmLnGBu2Gv9https://video.igem.org/lazy-static/thumbnails/6fa56050-ff68-4ba8-8502-19656e53d0e5.jpgOUC-China: Upper straight turbine down six-blade spiral (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/35c9e20f-3c67-410e-a519-7a2afc1be782/cf6fd5ad-740f-48df-a1fb-bb72b24f0bf0-master.m3u8https://video.igem.org/videos/embed/7DeQWPoCxNEXmLnGBu2Gv960072023-10-08T16:10:08.004ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gKHb9EHK7nCRK14oBrqhk2https://video.igem.org/lazy-static/thumbnails/7fc595f1-885f-4c7e-8e9c-a718ab404d99.jpgOUC-China: 3D printer working process (Team emblem top plate printing) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/7f936fdf-2e80-4c3f-a1f0-18bb6506a0bf/5973e763-203f-4698-bcea-dbacd8445770-master.m3u8https://video.igem.org/videos/embed/gKHb9EHK7nCRK14oBrqhk230092023-10-08T16:10:58.697ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dNeBJsCQujCeRHbu8oVu1Bhttps://video.igem.org/lazy-static/thumbnails/4471988c-5692-43a9-a3b7-2e0327c3217c.jpgOUC-China: Double straight six-leaf spiral (Sample 2) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/67a244bf-1c01-46f1-89f4-60834a38201b/1816e45a-731b-48bd-ae60-59c1c299e74e-master.m3u8https://video.igem.org/videos/embed/dNeBJsCQujCeRHbu8oVu1B62062023-10-08T16:11:25.998ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/vQCLVYY3AXNcuH7xEMR7f4https://video.igem.org/lazy-static/thumbnails/431302eb-2293-46d2-864f-00acac5775c0.jpgOUC-China: Double straight turbine blades (Sample 1) (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/f1a362a2-9ede-4eb4-b24d-fb21f571c2ff/85d22da6-595d-4185-82d0-cbbeb74e5787-master.m3u8https://video.igem.org/videos/embed/vQCLVYY3AXNcuH7xEMR7f4600112023-10-08T16:11:43.635ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/71NK25xapabWqxhqhD76ykhttps://video.igem.org/lazy-static/thumbnails/1bd95f2b-f32e-4255-96a6-7080ff55c3f3.jpgOUC-China: actual fermentation process (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/30b3a336-ddad-470d-9864-cc9d15ba8847/c4bc2ea4-bea2-4e74-8ef0-42e64974f42d-master.m3u8https://video.igem.org/videos/embed/71NK25xapabWqxhqhD76yk60222023-10-08T16:11:49.008ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uQZGbsjZ9QGFydDrkN3X3fhttps://video.igem.org/lazy-static/thumbnails/5401f065-0983-401b-a570-d126d03432c0.jpgToulouse-INSA-UPS: Instagram account (2023)Video describing our instagram account, posts, stories...https://static.igem.org/peertube/streaming-playlists/hls/e997234b-5168-4ab8-8289-4baa10ed840e/cefb1eaf-e47d-4fbf-b36d-2c50bc846edd-master.m3u8https://video.igem.org/videos/embed/uQZGbsjZ9QGFydDrkN3X3f124022023-10-08T16:18:58.714ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/maViRFEdBAKb4Vw5ZAiDashttps://video.igem.org/lazy-static/thumbnails/7dfc2f6b-3ea5-494d-a8b3-64143bb39016.jpgNTU-Singapore: dna higher res (2023)Higher resolution of dna animation by wipha https://2023.igem.wiki/ntu-singapore/https://static.igem.org/peertube/streaming-playlists/hls/a35951bb-ea0f-4a2a-a920-ced736e7e8c0/bd508734-2d7e-4a6c-b311-cf1ca4bfa26e-master.m3u8https://video.igem.org/videos/embed/maViRFEdBAKb4Vw5ZAiDas30012023-10-08T17:08:04.921ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eHu2zkT9QCnXY1Jtz5CYkZhttps://video.igem.org/lazy-static/thumbnails/dada6aed-0791-4991-9f2d-616f2fce35d0.jpgNTU-Singapore: dna loop (2023)loop of DNA video attempt, original dna video by wipha https://2023.igem.wiki/ntu-singapore/https://static.igem.org/peertube/streaming-playlists/hls/6f1191ca-878c-4c85-9acd-9cebb258a5a7/7729c56d-ffb3-4b52-bb68-f21143ee0276-master.m3u8https://video.igem.org/videos/embed/eHu2zkT9QCnXY1Jtz5CYkZ908112023-10-08T17:09:30.053ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qmzKnUGEcVuDUbw6FztSfkhttps://video.igem.org/lazy-static/thumbnails/b8733439-736e-46b8-9c7b-b9062facbe30.jpgUNILA-LatAm: rmsf (2023)Explore the exciting world of synthetic biology and cutting-edge research with our video presentation. We delve into the fascinating field of synthetic biology, where science and technology merge to create innovative solutions for real-world challenges. Join us as we take you on a journey through the remarkable work of the UNILA-LATAM iGEM team. Discover their groundbreaking research, explore their projects, and gain insights into their contributions to advancing synthetic biology. To learn more about their inspiring work, visit their official iGEM wiki page at https://2023.igem.wiki/unila-latam/. Dive into the details, get involved, and stay updated with the latest developments in the world of synthetic biology. Don't miss this opportunity to witness the incredible potential of synthetic biology and the impact it can have on our future. Watch our video now and explore the future of science and innovation!https://static.igem.org/peertube/streaming-playlists/hls/c53b0049-366d-4d47-b9e0-307043db012f/fa2f43a0-aff3-4fde-8496-853e5f547932-master.m3u8https://video.igem.org/videos/embed/qmzKnUGEcVuDUbw6FztSfk301682023-10-08T17:11:58.983ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fJ8E3ziNsj4FzMTZh8GNjMhttps://video.igem.org/lazy-static/thumbnails/b9fb7a05-3dc0-4cb3-94cc-49161b9025b4.jpgLethbridgeHS: AmazingLifeofFish (2023) [English]Come and learn about the amazing life of fish with Lethbridge High School iGEM team.https://static.igem.org/peertube/streaming-playlists/hls/7741e5d0-ea87-44e5-b4ce-15147c97e329/f4e358be-037b-46b3-8f31-cf77c94b90eb-master.m3u8https://video.igem.org/videos/embed/fJ8E3ziNsj4FzMTZh8GNjM76032023-10-08T17:49:24.022ZEducationLethbridgeHSYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4GGzVnzbAt29MY5rd4Jifyhttps://video.igem.org/lazy-static/thumbnails/84897c55-20be-433a-a969-f3a120644996.jpgWageningenUR: FrostDamage (2023)This video shows some of the measures that our local farmers used to prevent harvest losses due to frost damagehttps://static.igem.org/peertube/streaming-playlists/hls/1dfa2d96-0c82-407c-a694-737cd275c030/1994690e-91dd-4950-bbca-af4b1c009075-master.m3u8https://video.igem.org/videos/embed/4GGzVnzbAt29MY5rd4Jify95042023-10-25T09:52:33.201ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1ee8ruEB39b94mtwz5zmqWhttps://video.igem.org/lazy-static/thumbnails/b3892d9b-a4d2-4023-bde5-1bf72c7fdc36.jpgWageningenUR: FrostDamage_Full (2023)This video shows some of the measures that our farmers used to protect their fruit trees against the frost damage wave in the Spring of 2023https://static.igem.org/peertube/streaming-playlists/hls/01d8c274-ab7e-4a10-87bf-dc97451c927e/9d091d26-c187-418e-8156-d5c61dc21d09-master.m3u8https://video.igem.org/videos/embed/1ee8ruEB39b94mtwz5zmqW950112023-10-08T18:11:29.412ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wesR35XtRjn5t81ixyab1Mhttps://video.igem.org/lazy-static/thumbnails/f17d2894-1b21-4868-9ea1-782e6814a78a.jpgToulouse-INSA-UPS: Instagram account CALISPO (2023) [English]Toulouse-INSA-UPS: Instagram account CALISPO (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/f4d35f76-abdd-4baa-aec1-161137a6169d/96dc3304-6822-4523-ba45-787dcd93c3ec-master.m3u8https://video.igem.org/videos/embed/wesR35XtRjn5t81ixyab1M1120722023-10-08T18:40:08.830ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/swiqhEDWk6yRUsR3683Xfihttps://video.igem.org/lazy-static/thumbnails/de23214e-ce6a-4062-a82b-8632676ee7d6.jpgToulouse-INSA-UPS: rotary evaporation (2023)Rotary evaporation for liposomes preparationhttps://static.igem.org/peertube/streaming-playlists/hls/d6c8a727-5aa5-45d9-bd94-76ab71c136d9/08539805-36f8-4d5d-a73f-3b4801225d1d-master.m3u8https://video.igem.org/videos/embed/swiqhEDWk6yRUsR3683Xfi301212023-10-08T18:40:11.278ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rE9T3fqtBExuHo3LadXrHghttps://video.igem.org/lazy-static/thumbnails/138d3704-f4ed-4948-92ca-7a06a708721b.jpgToulouse-INSA-UPS: gif1(2023)Toulouse-INSA-UPS: gif1(2023)https://static.igem.org/peertube/streaming-playlists/hls/cfc833c6-1287-405d-a460-bd3da0f31fd5/dab34ba7-2978-480c-94a6-202eeaee5524-master.m3u8https://video.igem.org/videos/embed/rE9T3fqtBExuHo3LadXrHg1302272023-10-08T20:55:11.003ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4TrFYr83ysNs7TNSq6HVa9https://video.igem.org/lazy-static/thumbnails/04edefa9-4369-44bf-87e6-8c60c75ff909.jpgToulouse-INSA-UPS: gif2 (2023)Toulouse-INSA-UPS: gif2 (2023)https://static.igem.org/peertube/streaming-playlists/hls/1f7a2e05-c330-47fc-9d91-f2de35f6b5be/4376afd7-d049-47ef-80de-315b9c3b7572-master.m3u8https://video.igem.org/videos/embed/4TrFYr83ysNs7TNSq6HVa9180242023-10-08T21:03:02.207ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jqJKLGMP4Ax8MEjbKSuj44https://video.igem.org/lazy-static/thumbnails/c4178e37-1944-413b-a6ec-8571ffb565c1.jpgHamburg: Home_end_animation (2023)iGEM Team Hamburg 2023 - transFERRITIN https://2023.igem.wiki/hamburg/ Designer: Joel Senador (Team Member)https://static.igem.org/peertube/streaming-playlists/hls/9538b1e2-5af7-49d4-ab7b-3f5af5b98019/0f0925e7-4590-47b8-8e6a-5f67eb9a9c02-master.m3u8https://video.igem.org/videos/embed/jqJKLGMP4Ax8MEjbKSuj4420013782023-10-08T21:35:24.886ZWiki VideotransFERRITINHamburgYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ordbZjUFMukCYVae32YwuDhttps://video.igem.org/lazy-static/thumbnails/ef487dcb-2157-4777-a831-deab96c8d63f.jpgPatras-Med: output (2023)output --- https://2023.igem.wiki/patras-med/modelhttps://static.igem.org/peertube/streaming-playlists/hls/b5ae2823-4570-401f-8e84-1984047afe85/ccdaf8b8-604e-4b51-a9f4-138fff90b8ed-master.m3u8https://video.igem.org/videos/embed/ordbZjUFMukCYVae32YwuD4501182023-10-08T23:22:51.710ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/cdJMW6KwmcgMp7DGVfaNZZhttps://video.igem.org/lazy-static/thumbnails/67227b3a-3f5b-4499-b684-cbcf25acf08b.jpgHamburg: Home_cpp (2023)iGEM Team Hamburg 2023 - transFERRITIN https://2023.igem.wiki/hamburg/ Designer: Joel Senador (Team Member)https://static.igem.org/peertube/streaming-playlists/hls/5adbd26c-c677-4cb4-8dbc-629f1c1f7c83/ec2e64ab-a35d-4ec0-b557-e6686fe06487-master.m3u8https://video.igem.org/videos/embed/cdJMW6KwmcgMp7DGVfaNZZ10013962023-10-08T23:23:16.255ZWiki VideotransFERRITINHamburgYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qw8hgCH6DT8Sf8edjFS4nmhttps://video.igem.org/lazy-static/thumbnails/c75c928f-e372-46a5-a5d6-cb2fde5885cf.jpgHamburg: Home_ferritin (2023)iGEM Team Hamburg 2023 - transFERRITIN https://2023.igem.wiki/hamburg/ Designer: Joel Senador (Team Member)https://static.igem.org/peertube/streaming-playlists/hls/c69020b1-cb96-456a-9858-019b7930e142/95fa6e5f-7745-4372-919b-a6cf89c80fc9-master.m3u8https://video.igem.org/videos/embed/qw8hgCH6DT8Sf8edjFS4nm10012452023-10-08T23:23:22.464ZWiki VideotransFERRITINHamburgYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jXb9353kKkzwuKr6irRzpPhttps://video.igem.org/lazy-static/thumbnails/1b7aa913-85a2-4ed8-a97f-b2ac70015cd4.jpgHamburg: Home_nanobody (2023)iGEM Team Hamburg 2023 - transFERRITIN https://2023.igem.wiki/hamburg/ Designer: Joel Senador (Team Member)https://static.igem.org/peertube/streaming-playlists/hls/9978a6bd-9fca-4faf-90e7-c323740207a1/f41143b2-1bc5-49f6-a15b-ab883249d36d-master.m3u8https://video.igem.org/videos/embed/jXb9353kKkzwuKr6irRzpP10012512023-10-08T23:23:27.303ZWiki VideotransFERRITINHamburgYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1Dg7pYPhdTmf4uyiYjAmGphttps://video.igem.org/lazy-static/thumbnails/56506476-7244-4d27-88c6-4b24ac093f92.jpgGifu: dry_engineering (2023)We aligned the sequences we obtained and highlighted the recognized sequences in blue. As a result, we were able to narrow down to three candidates for gRNA. At the top of the page, the values for each metric are listed: Target (excluding PAM sequence), Hits (number of sequences that can be recognized), Ratio (Hits divided by the total number of sequences), and Off-Target Rate (number of unintended recognition regions).Our wiki rink(https://2023.igem.wiki/gifu/dry_engineering) https://static.igem.org/peertube/streaming-playlists/hls/0533d4eb-2fed-4510-a652-acd3d4505ba7/5d80b73d-4681-457b-9867-52df1d68b5b9-master.m3u8https://video.igem.org/videos/embed/1Dg7pYPhdTmf4uyiYjAmGp90092023-10-09T01:12:02.109ZTargetOff-TargetgRNAsequenceevolutionary informationYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2cd34UUBfJbgKJr36jP2mrhttps://video.igem.org/lazy-static/thumbnails/0e88a980-0078-45a9-9679-e525b0589500.jpgXMU-China: Members (2023) [English]team pv wiki link https://2023.igem.wiki/xmu-china/members https://static.igem.org/peertube/streaming-playlists/hls/09a9bcc3-a354-456d-826e-2dae27645d5d/92438177-e3ed-4b85-a2c8-db56b769d9c0-master.m3u8https://video.igem.org/videos/embed/2cd34UUBfJbgKJr36jP2mr1185482023-10-09T01:41:58.101ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oHgjvm5iUhZiYgmay9cQA3https://video.igem.org/lazy-static/thumbnails/96d17e06-459d-4663-9028-e1e19c5f8ea9.jpgUChicago: 4je5 (2023)Animation showcasing one of our aminotransferase molecules named 4je5. https://2023.igem.wiki/uchicago/https://static.igem.org/peertube/streaming-playlists/hls/b7ebfc5d-75e0-4720-81e8-625ab697afee/ed1b9d02-d801-40e9-85e5-b3a1a49dab63-master.m3u8https://video.igem.org/videos/embed/oHgjvm5iUhZiYgmay9cQA360312023-10-09T02:40:55.406ZdrylabYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6LEqcdbjDizEznVnMw5kE9https://video.igem.org/lazy-static/thumbnails/b119e034-8893-4f9f-bdf7-f23d383e02fa.jpgUChicago: 4je5 Docking (2023)Animation showcasing one result of our docking simulation on aminotransferase 4je5. https://2023.igem.wiki/uchicago/https://static.igem.org/peertube/streaming-playlists/hls/2eba1836-0c00-48e1-9991-1fe1df572eb0/81cafbd8-e50d-40e4-81bc-f894c09d57de-master.m3u8https://video.igem.org/videos/embed/6LEqcdbjDizEznVnMw5kE950142023-10-09T02:42:38.229ZdockingdrylabYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kNB72po9DR7yoaXNhtyanWhttps://video.igem.org/lazy-static/thumbnails/7887c41b-9925-4087-a5de-6eb36b30ec8a.jpgUChicago: Keto Acid Levothyroxine Fragment (2023)Animation showcasing the keto acid levothyroxine fragment we used in our docking simulations. https://2023.igem.wiki/uchicago/https://static.igem.org/peertube/streaming-playlists/hls/a05f7b42-a1e6-4200-8dce-37acbdd2a0ec/5924519a-fb1c-4b27-9825-ed57f1cc0460-master.m3u8https://video.igem.org/videos/embed/kNB72po9DR7yoaXNhtyanW40152023-10-09T03:05:07.445ZdrylabYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uvDr6gaEdDZJRgk2HEubvfhttps://video.igem.org/lazy-static/thumbnails/6609fdd6-ec65-4e36-a37d-9725fa1b10eb.jpgCAU-China: Cross-linking-fluorescence-test (2023)CAU-China: Cross-linking-fluorescence-test (2023)https://static.igem.org/peertube/streaming-playlists/hls/e6e3853d-6737-457d-8dea-87b3e8b96428/c58001c5-13ee-4ec3-8257-a2d01f60fea4-master.m3u8https://video.igem.org/videos/embed/uvDr6gaEdDZJRgk2HEubvf25002023-10-09T05:04:48.104ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uw8BwVThVdeAfYq3kgZm4ahttps://video.igem.org/lazy-static/thumbnails/b5e24105-b422-4647-8087-09c52b6d3653.jpgMIT-MAHE: Amount of biochar needed (2023) [English]Graphical representation of amount of biochar exhausted as the number of cycles of sludge treatment increases for 21 ppm, 15 ppm and 10 ppm of TCC. As the concentration of TCC increases, the biochar gets exhausted within lesser number of cycles and hence needs to be regenerated faster. Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/e6f4e314-dfc4-44bd-9e83-74dc81d035bf/c6599a10-df83-454f-a919-6ee693e4f547-master.m3u8https://video.igem.org/videos/embed/uw8BwVThVdeAfYq3kgZm4a70122023-10-09T05:05:06.770ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fmKWuq2KwFaS9DGxovdxGYhttps://video.igem.org/lazy-static/thumbnails/b4fc12bb-e713-4610-85c7-d83ec391adb5.jpgMIT-MAHE: Packed Bed Bioreactor (2023) [English]CAD model of our lab-scale packed bed bioreactor Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/7445e532-d9e3-47b8-8ed5-1f63aa27cbd4/9eddaa14-188a-4eaf-95d6-19b9573cb94c-master.m3u8https://video.igem.org/videos/embed/fmKWuq2KwFaS9DGxovdxGY330192023-10-09T05:29:30.278ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/f13Au5C6AdasN8NcVqLTGXhttps://video.igem.org/lazy-static/thumbnails/8693797f-86b3-46d5-a87f-0b541c935b54.jpgTOULOUSE-INSA-UPS: two-partite RNA polymerase-linked antibody against HER2 (2023) [English]re-functionalization of a two-partite RNA polymerase-linked antibody against HER2https://static.igem.org/peertube/streaming-playlists/hls/71618a49-ede2-454c-ba2f-37c002e2e4b3/2ba5fa31-21e8-4314-9cf5-92598921aa6c-master.m3u8https://video.igem.org/videos/embed/f13Au5C6AdasN8NcVqLTGX802752023-10-09T07:05:01.747ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3FRivbGZcqkSTctoe5B7HYhttps://video.igem.org/lazy-static/thumbnails/9b3444cf-14dc-4aab-a03b-92ae19314324.jpgSHSBNU-China: Protein Solution Injecting into Cold Coagulation Bath (2023)This is part of the Hardware efforts of Team SHSBNU-China 2023 project. The protein solution can be made into long fibers using wet spinning, and the experiment conditions are being tested. https://static.igem.org/peertube/streaming-playlists/hls/15c2aaeb-2a20-46d2-899e-6c11d8cd1732/3a65c0cd-0297-4b37-979c-52cea3bd01d9-master.m3u8https://video.igem.org/videos/embed/3FRivbGZcqkSTctoe5B7HY730172023-10-09T09:08:18.440ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uTzZdfM4gxbGqpbTEf4usrhttps://video.igem.org/lazy-static/thumbnails/ba8bac83-2eb7-4357-bec6-159eec5a8457.jpgSZU-China: Villagarnival! (2023)A brief video for our team mmetup—the 7th southern China regional meeting for iGEMers our url: https://2023.igem.wiki/szu-china/collarbrationhttps://static.igem.org/peertube/streaming-playlists/hls/e9f3c276-0d27-43a3-af6b-e5c03f97bfc5/cd42fb87-6af5-46c3-bed2-984bfbec4dbb-master.m3u8https://video.igem.org/videos/embed/uTzZdfM4gxbGqpbTEf4usr170232023-10-09T09:22:52.962Zmeetup-relatedYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eMA25fJZ46tXNh2fbtw6N7https://video.igem.org/lazy-static/thumbnails/16364917-4d98-4df7-a0a8-3d7ef4a9bc1f.jpgToulouse-INSA-UPS: From the anchoring to the anticancer drug production (2023)Animation of CALIPSO's mechanism from the anchoring to the anticancer drug production.https://static.igem.org/peertube/streaming-playlists/hls/6fa43ca4-1b1a-415c-87a5-f6fb1c0797c6/f77653a8-045b-4da8-a3e4-47c48302bb6e-master.m3u8https://video.igem.org/videos/embed/eMA25fJZ46tXNh2fbtw6N76702352023-10-09T09:14:48.470ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/s1khvDpVHJZwFmR4yG6gRchttps://video.igem.org/lazy-static/thumbnails/028df156-8145-4750-891f-3413c7f0edb8.jpgAachen: Homepage Background (2023) [English]Background video of mycelium for iGEM Aachen 2023 Wiki. 2023.igem.wiki/aachenhttps://static.igem.org/peertube/streaming-playlists/hls/d2997d61-15d0-4908-b473-f98448c3d0c9/27b3b5fa-6245-4085-857e-4f54fcb7c4b6-master.m3u8https://video.igem.org/videos/embed/s1khvDpVHJZwFmR4yG6gRc2062023-10-09T10:45:14.674ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hjW8PBMZkD6yfmyJQMmryChttps://video.igem.org/lazy-static/thumbnails/4ce2ef4f-39b9-4b61-a405-9abb179aa5d3.jpgAachen: E-Waste Globe (2023) [English]Video of globe with e-waste facts for iGEM Aachen 2023 Wiki. 2023.igem.wiki/aachenhttps://static.igem.org/peertube/streaming-playlists/hls/8436f7dc-2972-4abd-b9a1-e98ae7166358/0e55efbc-58e9-4b90-a31f-f6574353beab-master.m3u8https://video.igem.org/videos/embed/hjW8PBMZkD6yfmyJQMmryC1072023-10-09T10:47:20.038ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4auhEosghXLT1Rb9NUG6Pxhttps://video.igem.org/lazy-static/thumbnails/04b0a02d-1d54-487b-82ee-206ae5903f4d.jpgAachen: Model Animation (2023) [English]Animation for peptide modeling in iGEM Aachen 2023 Wiki. 2023.igem.wiki/aachen/modelhttps://static.igem.org/peertube/streaming-playlists/hls/199e8ae5-4f2f-4324-bb13-e5f8553694b9/d961334a-a1da-4c17-8b86-2f337bec9c49-master.m3u8https://video.igem.org/videos/embed/4auhEosghXLT1Rb9NUG6Px38022023-10-09T10:56:07.168ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/towr7UJFk9G8jGGgQDbJGPhttps://video.igem.org/lazy-static/thumbnails/6630681d-22be-4df4-acaa-db0f99bbe5b7.jpgPatras: preview-video-up-fm (2023) [English]UP Fm interview to upload in wikihttps://static.igem.org/peertube/streaming-playlists/hls/ddcbdca0-065c-44c8-a5d4-d0125b1381c7/02254a79-cdfb-426e-a1b5-f2f03a18022e-master.m3u8https://video.igem.org/videos/embed/towr7UJFk9G8jGGgQDbJGP239022023-10-09T11:40:53.422ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/f7tBnJhaRzDpqkFnnmjwo5https://video.igem.org/lazy-static/thumbnails/aafa9d92-6598-4760-81cd-5e9f5e5e2cc2.jpgMIT-MAHE: Inclusivity Model (2023) [English]Our research suggests the lack of accessibility in scientific labs for individuals with disabilities, specifically those who use wheelchairs. We have developed a portable, collapsible, and cost-effective height-adjustable workstation that can be attached to existing lab setups. Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/72476b48-2ab1-43f6-8847-68742ada0528/cd8e1e6a-a815-466d-9362-05a28879cb78-master.m3u8https://video.igem.org/videos/embed/f7tBnJhaRzDpqkFnnmjwo5180132023-10-09T12:44:58.431ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ohcVgVGvXFMa9fEBoG8MjNhttps://video.igem.org/lazy-static/thumbnails/4bc27dd3-c6d8-4aac-beff-8be356ea3729.jpgMIT-MAHE: Adsorption video (2023) [English]Adsorption Mechanism of the biochar Raschig ring - 90% of TCC gets adsorbed and degraded Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/b46c4bbf-a7d8-4260-a472-e61ca3e1d4ae/e87e5625-78ef-4355-837d-8f6c89e646b6-master.m3u8https://video.igem.org/videos/embed/ohcVgVGvXFMa9fEBoG8MjN200192023-10-09T13:02:11.511ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4oQeY8NdztS13QYdQrZz2Fhttps://video.igem.org/lazy-static/thumbnails/236ab171-d106-4e03-8a85-9747b10c65bf.jpgMIT-MAHE: Toggling Mechanism (2023) [English]Toggling between 2 Bioreactors to treat sludge for optimum results Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/1b7b8225-7cdd-403b-9dc3-a0d13273b47d/1dbd647f-8d71-4195-a922-c58df2e194a7-master.m3u8https://video.igem.org/videos/embed/4oQeY8NdztS13QYdQrZz2F30042023-10-09T13:06:25.608ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/cdZ9QMuV68gLGhsAmz34v6https://video.igem.org/lazy-static/thumbnails/304e2eb2-940c-453f-b6f6-b79ff0d60531.jpgTechnion-Israel: home page loop (2023) [English]a short loop for our wiki home https://2023.igem.wiki/technion-israel/homehttps://static.igem.org/peertube/streaming-playlists/hls/5ae4ac04-231d-470d-9c5b-b8b2ff277f63/d3782cfe-ac33-415f-9887-47c9e1c8fe8e-master.m3u8https://video.igem.org/videos/embed/cdZ9QMuV68gLGhsAmz34v6220582023-10-09T13:48:26.201ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nN3otcK3wkK8wrRsZLZrXWhttps://video.igem.org/lazy-static/thumbnails/01feeee2-bd99-43ad-921e-7f801af147fe.jpgNAU-CHINA: banner (2023)For NAU-CHINA's in-wiki homepage video https://2023.igem.wiki/nau-china/https://static.igem.org/peertube/streaming-playlists/hls/b07d98b8-8007-41cc-b5fc-265392ad6578/625bc550-358a-4a3d-8d1d-941f9d31093d-master.m3u8https://video.igem.org/videos/embed/nN3otcK3wkK8wrRsZLZrXW13042023-10-09T13:52:09.142ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wkDJdQMqtNsqAzg7MgpwXBhttps://video.igem.org/lazy-static/thumbnails/cc9789f6-8e34-452d-8321-5d3117745edf.jpgTechnion-Israel: first education video (2023) [English]our first educational video https://2023.igem.wiki/technion-israel/homehttps://static.igem.org/peertube/streaming-playlists/hls/f5b08ac7-995a-4cf9-a464-0806b4872979/fcf25e01-6ac0-42a4-80ae-7096881fc560-master.m3u8https://video.igem.org/videos/embed/wkDJdQMqtNsqAzg7MgpwXB264052023-10-09T13:54:00.892ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mQUx6ZvAbqdNXcEkHD3HPehttps://video.igem.org/lazy-static/thumbnails/4a4c707f-4f51-44a9-b973-9adefcddf43d.jpgTechnion-Israel: second education video (2023) [English]our second educational video https://2023.igem.wiki/technion-israel/homehttps://static.igem.org/peertube/streaming-playlists/hls/a8cad9cc-e59d-4f4b-9297-422b70d51277/a05ea54b-2522-4233-8bd5-c45ab114d578-master.m3u8https://video.igem.org/videos/embed/mQUx6ZvAbqdNXcEkHD3HPe270032023-10-09T13:56:09.346ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tN6ry7DUTTJJVjsEVof2Pghttps://video.igem.org/lazy-static/thumbnails/a3da211c-94c6-4c86-a0bb-cb440348dbc9.jpgUIncheon: bio-reactor_performance (2023)bio-reactor performancehttps://static.igem.org/peertube/streaming-playlists/hls/e1164f63-d275-41e8-9aa8-82574a2e5a09/b025de81-8188-4fc9-ad0d-0aba1945b0c9-master.m3u8https://video.igem.org/videos/embed/tN6ry7DUTTJJVjsEVof2Pg60152023-10-09T13:57:03.647ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hWk9G4NfMc3bXgFKf8yt7Thttps://video.igem.org/lazy-static/thumbnails/cf943156-da1d-48a8-90d0-e73f35ee23a3.jpgSZU-China: polycobead-1 (2023) [English]The product！ https://static.igem.org/peertube/streaming-playlists/hls/89282f03-9a21-48f2-bb44-f123033d66cb/97edbd86-df1b-4968-bf45-df410e469cde-master.m3u8https://video.igem.org/videos/embed/hWk9G4NfMc3bXgFKf8yt7T45092023-10-09T15:04:00.049ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/am1U2VhakNN2rg6M48zfkYhttps://video.igem.org/lazy-static/thumbnails/2d2a20e0-f3a5-4457-827f-98e9dfe82460.jpgSZU-China: A6 tomatoes (2023) [English]Epidemiological models of plant mycoseshttps://static.igem.org/peertube/streaming-playlists/hls/4badad1c-2a2e-4f9e-a060-76b82b6092b6/4cade104-a90f-4cb3-bb87-b6557fba922e-master.m3u8https://video.igem.org/videos/embed/am1U2VhakNN2rg6M48zfkY130682023-10-09T15:07:50.020ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nTn5pyz9gztmSVFb9d8aCAhttps://video.igem.org/lazy-static/thumbnails/9564b7bd-67ee-426e-a1a0-50c4319b65f7.jpgPrinceton: Home page logo animation (2023)Animation of the Princeton iGEM team logo.https://static.igem.org/peertube/streaming-playlists/hls/b13bd529-0a99-49d0-a4d4-b8ae309bb866/9225ea5c-ee67-46b0-abf8-07fbb06e4b5d-master.m3u8https://video.igem.org/videos/embed/nTn5pyz9gztmSVFb9d8aCA14032023-10-09T15:28:22.572ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/79YFWBX6oqsDcjxZyhyxvFhttps://video.igem.org/lazy-static/thumbnails/11f87748-9528-4809-8600-54cd0521c383.jpgFudan: picture book reading activity education (2023) [English]This video shows children's funny reactions to reading our picture books. We also got more inspiration from the feedback we received from our young friends, which helped us make progress with our books. Credits: some child participants (we have got signed consent for all of them), Qingying Yang (Fudan team member) Wiki link:https://2023.igem.wiki/fudan/https://static.igem.org/peertube/streaming-playlists/hls/31d7b7bd-f0ad-4329-aca8-4c856153e5d5/8adb7abc-cc67-43f0-b591-1acac2cff69b-master.m3u8https://video.igem.org/videos/embed/79YFWBX6oqsDcjxZyhyxvF950292023-10-09T15:31:34.491ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/49Np6hUhcb9g9LWyMa3tR6https://video.igem.org/lazy-static/thumbnails/7b1fac7f-6a67-4fc9-b412-ac4aa8a4c9e7.jpgNWU-CHINA-A: Detection of CAT activity in E.coli BL21(DE3) transformed by pET-28a(+)-CAT (2023) [...NWU-CHINA-A: Detection of CAT activity in E.coli BL21(DE3) transformed by pET-28a(+)-CAT (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/1985f5c2-93a4-4b85-9e42-9529cbaa7beb/e211f4d0-d41c-4170-aa37-f4fd2ed0ee97-master.m3u8https://video.igem.org/videos/embed/49Np6hUhcb9g9LWyMa3tR6380102023-10-09T15:33:51.897ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mr47C6cCaTpVuvR2Afek1ahttps://video.igem.org/lazy-static/thumbnails/c880a69e-ec31-4bac-b388-eb77b6a995f1.jpgCornell: ENERGEM Logo (2023) [English]ENERGEM Logo Animation Cornell iGEM Wiki: https://2023.igem.wiki/cornell/ Credits: Vernetta Huanghttps://static.igem.org/peertube/streaming-playlists/hls/a5764960-885f-4fff-a11b-def0d5647d9d/a6f976ad-00d0-400a-ae26-d50081e45116-master.m3u8https://video.igem.org/videos/embed/mr47C6cCaTpVuvR2Afek1a50112023-10-09T16:07:11.186ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7EAbrd2QxyP7w3t3NA4AHMhttps://video.igem.org/lazy-static/thumbnails/de26702e-308b-421c-807b-e6c7db8deb10.jpgBIT-China: Home-page-anime-1 (2023)A simple anime which will be used in our home page. https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/35fa28ca-400c-4a89-b55c-e7cabc763b97/16eccfee-508b-42a2-947a-179b10de1465-master.m3u8https://video.igem.org/videos/embed/7EAbrd2QxyP7w3t3NA4AHM3012023-10-09T16:28:12.544ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/duvZvs4SdzzXn7PdEWgdK2https://video.igem.org/lazy-static/thumbnails/06e55052-ba64-4741-bf0e-fac1ebb4a5cf.jpgBIT-China: Home-page-anime-2 (2023)A simple anime which will be used in our home page. https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6528f8ef-a050-4f4d-b859-cf74607f9b67/ed9059bf-833f-471c-ad95-967d4ebebac5-master.m3u8https://video.igem.org/videos/embed/duvZvs4SdzzXn7PdEWgdK23002023-10-09T16:30:41.193ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/44udtG1zm2HjSimSDj42EYhttps://video.igem.org/lazy-static/thumbnails/d5c64fdb-8813-427d-a743-28574b224df9.jpgBIT-China: Home-page-anime-3 (2023)A simple anime which will be used in our home page. https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/18c80915-3c2a-4be5-b8db-bd47eaffff30/45d15f29-217d-4bc2-a97a-2909979278bb-master.m3u8https://video.igem.org/videos/embed/44udtG1zm2HjSimSDj42EY3002023-10-09T16:31:39.351ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nXv6sbvhDLjxijSGKSyumjhttps://video.igem.org/lazy-static/thumbnails/7827e6b5-a183-4242-8d3f-7b3ad98efa9c.jpgBIT-China: Home-page-anime-4 (2023)A simple anime which will be used in our home page. https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/b1cfbfbf-a3a0-4d39-8361-8e6775e2478a/ac9b008d-3f6b-49f5-8900-202d7151aec6-master.m3u8https://video.igem.org/videos/embed/nXv6sbvhDLjxijSGKSyumj3002023-10-09T16:32:21.280ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fkNZgJrdNFtKHQsKHPWKnChttps://video.igem.org/lazy-static/thumbnails/a1ceda3d-a9b4-4bd6-bdef-8fc3e949345f.jpgBIT-China: Home-page-anime-5 (2023)A simple anime which will be used in our home page. https://2023.igem.wiki/bit-china/index.html https://static.igem.org/peertube/streaming-playlists/hls/742407a7-e464-4431-99ef-e9720dbb46b2/1a58b098-2018-45fc-a156-50d2fcfdad52-master.m3u8https://video.igem.org/videos/embed/fkNZgJrdNFtKHQsKHPWKnC3012023-10-09T16:32:54.771ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2tUwE7BSAWfSjsgHSAzubyhttps://video.igem.org/lazy-static/thumbnails/b7981f75-a954-403a-bcd7-55ac4cead894.jpgBIT-China: Home-page-anime-6 (2023)A simple anime which will be used in our home page. https://2023.igem.wiki/bit-china/index.html https://static.igem.org/peertube/streaming-playlists/hls/0bfe97a3-16c4-4edb-ab75-0af67bef0a9c/77a66ba0-8d95-41bb-97a3-c162e81bfb46-master.m3u8https://video.igem.org/videos/embed/2tUwE7BSAWfSjsgHSAzuby3002023-10-09T16:33:38.547ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kw8RU1UpqkS9PqVwvKWkmPhttps://video.igem.org/lazy-static/thumbnails/b357ba13-e376-4648-8ec2-2300d7216323.jpgHamburg: Home_animation_L-screen (2023)iGEM Team Hamburg 2023 - transFERRITIN https://2023.igem.wiki/hamburg/ Designer: Joel Senador (Team Member) Actor: Lennert Weber (Team Member)https://static.igem.org/peertube/streaming-playlists/hls/9e12caad-dff1-4ace-b61c-15f170270da3/48c4161a-570c-4724-a442-e28a7b996785-master.m3u8https://video.igem.org/videos/embed/kw8RU1UpqkS9PqVwvKWkmP20032023-10-09T16:34:51.428ZWiki VideotransFERRITINHamburgYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kYBJMyesEmfyYP5kQCnpPmhttps://video.igem.org/lazy-static/thumbnails/865753d5-acb6-4cf4-ba79-9203414e49c1.jpgNWU-CHINA-A: Detection of CAT activity in E. coli BL21(DE3) transformed by pET-28a(+)-CAT-SOD-Ela...NWU-CHINA-A: Detection of CAT activity in E. coli BL21(DE3) transformed by pET-28a(+)-CAT-SOD-Elafin. (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/a1c54f4e-3e63-4255-886f-12149300923e/02f5eddb-8292-4d5f-92dd-c8b27ced03d8-master.m3u8https://video.igem.org/videos/embed/kYBJMyesEmfyYP5kQCnpPm290102023-10-09T17:02:45.530ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/85C9kcWoESfBRZNjAg4htLhttps://video.igem.org/lazy-static/thumbnails/ad6bdff8-e904-4570-89bf-a85ec472e981.jpgMIT-MAHE: Biochar Regeneration (2023) [English]Biochar regeneration using n-hexane as a solvent in our bioreactor model Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/39553852-8d78-4746-bc53-fb257a9f8cb2/03e9f1a5-6556-480d-85a1-3e6fe3b28c9f-master.m3u8https://video.igem.org/videos/embed/85C9kcWoESfBRZNjAg4htL290142023-10-09T18:56:38.747ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8g4fdSJKBGpxdqa8K7XML7https://video.igem.org/lazy-static/thumbnails/a0a485b3-05f9-44ef-af14-fcec4259ecfb.jpgGuelph: Filler (2023) [English]Guelph: Filler (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/3aca2089-97e0-4c78-bca2-3d19b83a966a/56cc2ce1-da8f-44b5-981b-2f9b86e00338-master.m3u8https://video.igem.org/videos/embed/8g4fdSJKBGpxdqa8K7XML77032023-10-09T20:03:30.221ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8x4mdgY2A7pxkttvBYRufyhttps://video.igem.org/lazy-static/thumbnails/a76bad2e-e1a8-4c80-b9d2-2140e6fcdec6.jpgGuelph: Reorientation1 (2023) [English]Guelph: Reorientation1 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/3d06174f-d5e0-4f71-bfcc-85be88d23304/7b679078-41f0-4a7e-a73f-7b48b416cf39-master.m3u8https://video.igem.org/videos/embed/8x4mdgY2A7pxkttvBYRufy10122023-10-09T20:04:45.947ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5G8xyyBht3XKcXan3dQRjphttps://video.igem.org/lazy-static/thumbnails/262ae1bc-74fb-494c-88c1-017b9891248c.jpgMIT-MAHE: Packed Bed single (2023) [English]Our proposed model of a working single packed bed bioreactor Get more information in our wiki: https://2023.igem.wiki/mit-mahe/https://static.igem.org/peertube/streaming-playlists/hls/25fef466-e79a-4da1-abad-f4990a1c924f/9cbe611a-29d6-4ea5-bae2-c40a43bb7055-master.m3u8https://video.igem.org/videos/embed/5G8xyyBht3XKcXan3dQRjp140102023-10-09T20:13:36.411ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fmwH64KXBon3sBWz3pokkchttps://video.igem.org/lazy-static/thumbnails/69063296-29fa-48c6-b0ed-c9867c33cbeb.jpgUChicago: Landing Animation (2023)Animation showcasing some of the molecular interactions we studied! https://2023.igem.wiki/uchicago/https://static.igem.org/peertube/streaming-playlists/hls/743dbdca-19ed-44a7-8b54-59a2d875d165/af6d336c-e5ba-4d13-8f01-374897d01a0e-master.m3u8https://video.igem.org/videos/embed/fmwH64KXBon3sBWz3pokkc1104592023-10-09T20:34:19.779ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hqjDHsCwTyH9TRJknuuKfGhttps://video.igem.org/lazy-static/thumbnails/b397212b-5cc5-4255-b104-70304229281b.jpgSJTU-BioX-Shanghai: model-video1 (2023) [English]SJTU-BioX-Shanghai: model-video1 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/84f7900b-03fb-4af9-a761-f870f782bf60/68e88e30-89a2-4b6a-8dcb-393e95a37710-master.m3u8https://video.igem.org/videos/embed/hqjDHsCwTyH9TRJknuuKfG100142023-10-10T00:32:51.806ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2dNNRwiHrwNsSvm84yYiKihttps://video.igem.org/lazy-static/thumbnails/f2a4c316-079b-4e9e-9218-b8b1742b9241.jpgLethbridge: Video 6.0: Hydrogen Bond Results for Paratope 2 (2023)Video 6: Hydrogen Bonds between FL-PbEL04 and CAPE-FP show 3 total hydrogen bonds, as shown in Table 3.1. https://static.igem.org/peertube/streaming-playlists/hls/09e2e905-f152-4909-acef-f9c0df866b93/52a2b30a-e2f9-46ed-b871-ffa1089a60f9-master.m3u8https://video.igem.org/videos/embed/2dNNRwiHrwNsSvm84yYiKi13032023-10-10T01:57:08.666ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/215Vt9RyNWeTuMyFo197DEhttps://video.igem.org/lazy-static/thumbnails/6ba077af-c1ed-4af9-bcf4-a55e9baada5c.jpgUNILA-LatAm: protein-protein_interactions (2023)🔬 Explore the fascinating world of protein-protein interactions with UNILA-LatAm in 2023! 🧬 Join us on a scientific journey as we delve into the intricate web of molecular connections that govern biological processes. In this video, our team from UNILA-LatAm shares their groundbreaking research on protein-protein interactions, shedding light on the fundamental mechanisms that drive life. 🌐 Discover the cutting-edge research and innovative projects undertaken by UNILA-LatAm at the iGEM competition. Explore the link between proteins, the building blocks of life, and how they collaborate to make life possible. 🤓 Are you ready to dive into the world of molecular biology? Whether you're a scientist, student, or simply curious about the wonders of science, this video offers insights and knowledge that will expand your understanding of the biological world. 🔗 To learn more about UNILA-LatAm's research and stay updated with their latest discoveries, visit their official iGEM page: https://2023.igem.wiki/unila-latam/ Don't miss out on this exciting exploration of protein-protein interactions by UNILA-LatAm. Hit the like button, subscribe to our channel for more intriguing science content, and share this video with your fellow science enthusiasts! #UNILALatAm #iGEM2023 #ProteinInteractions #MolecularBiology #ScienceExplorationhttps://static.igem.org/peertube/streaming-playlists/hls/081c2bff-773d-4d2c-a54f-116bcec6e120/df879ea7-177f-48ac-a9a6-c8171adf8309-master.m3u8https://video.igem.org/videos/embed/215Vt9RyNWeTuMyFo197DE2402172023-10-10T02:03:33.384ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/s252P99cRsDWfq1B8PmgPdhttps://video.igem.org/lazy-static/thumbnails/5f66eb82-f378-4e1d-81dc-f227642b1ee7.jpgLethbridge: Video 8.0: Hydrogen Bond Results for Paratope 3 (2023)Video 8: Hydrogen Bonds between FL-PbEL04 and CAPE-FP show 1 hydrogen bond, as shown in Table 4.1.https://static.igem.org/peertube/streaming-playlists/hls/d2b3d551-bf5d-41f7-8798-42812f66f6fe/1adccae2-857b-455c-aacb-d7165cf47939-master.m3u8https://video.igem.org/videos/embed/s252P99cRsDWfq1B8PmgPd19022023-10-10T02:12:23.617ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2pMZjMz5VVhPbtyUAjAZRnhttps://video.igem.org/lazy-static/thumbnails/e92c78cd-3fa7-44a3-bd77-c076a08fc993.jpgLethbridge: Video 5.0: Electrostatic Interactions of Paratope 2 (2023)Video 5: FL-PbEL04 Epitope B (Pink) and CAPE-FP paratope 2 (red) showing electrostatic interactions, as displayed in Table 3. https://static.igem.org/peertube/streaming-playlists/hls/0b6b9631-887e-441f-8737-01575210dbe3/508bec6f-e0f1-4d19-9ac9-4d5b2b49ffdd-master.m3u8https://video.igem.org/videos/embed/2pMZjMz5VVhPbtyUAjAZRn15032023-10-10T02:14:12.793ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qffGYvXNW9dga6v4hkGkwShttps://video.igem.org/lazy-static/thumbnails/d612bfde-9a99-4835-a2c7-e410741afc70.jpgLethbridge: Video 7.0: Electrostatic Interactions of Paratope 3 (2023)Video 7: FL-PbEL04 Epitope B (Pink) and CAPE-FP paratope 3 (Green) showing electrostatic interactions, as displayed in Table 4. https://static.igem.org/peertube/streaming-playlists/hls/c458cdc5-8291-43df-98e6-7e9ce082375a/72d8ef39-0642-4a0b-ad25-a91e09feec03-master.m3u8https://video.igem.org/videos/embed/qffGYvXNW9dga6v4hkGkwS13022023-10-10T02:14:21.440ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/i3K8PhgXpRgu6Zm1ySFWTGhttps://video.igem.org/lazy-static/thumbnails/d9873920-aaef-4124-98a1-d7902f890d09.jpgLethbridge: Video 9.0: Electrostatic Interactions of Paratope 2 and Paratope 3 (2023)Video 9: FL-PbEL04 Epitope B (Pink) and CAPE-FP paratope 2 (red) showing electrostatic interactions in a cloud-like form. Blue (+) and red (-) regions show the polarity of interacting side chainshttps://static.igem.org/peertube/streaming-playlists/hls/8a0d6d70-06bd-4587-a8b6-24997e4cf386/04fd5ea8-d9ce-4e32-a3e8-04f225d85aff-master.m3u8https://video.igem.org/videos/embed/i3K8PhgXpRgu6Zm1ySFWTG8032023-10-10T02:14:32.787ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wxwsCS6N9nk51eHTWwcmN7https://video.igem.org/lazy-static/thumbnails/339f28c7-15bb-4b68-b72b-d4ea184b480e.jpgLethbridge: Video 2.0 and 2.1: Electrostatic Interactions of (Paratope 1) (2023)Video 2: (top left) FL-PbEL04 Epitope A (Pink) and CAPE-GFP paratope 1 (Yellow) showing electrostatic interactions, as displayed in Table 1. Video 2.1: (top right) FL-PbEL04 epitope B (Pink) and CAPE-GFP paratope 1 (yellow) showing electrostatic interactions in a cloud-like form. Blue (+) and Red (-) regions show the polarity of interacting side chains. https://static.igem.org/peertube/streaming-playlists/hls/f758fce3-0fd2-4122-964c-494112285ada/00d91cb6-0ec6-440e-829d-0e9ef837ae87-master.m3u8https://video.igem.org/videos/embed/wxwsCS6N9nk51eHTWwcmN72105212023-10-10T02:14:53.268ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qQEPggsSYzh53FkTuJHXqEhttps://video.igem.org/lazy-static/thumbnails/b2585f62-7e30-4727-a36f-ff7c26e3c13a.jpgLethbridge: Video 4.0 and 4.1: Electrostatic Interaction (Paratope 2) (2023)Video 4.0: (top left) FL-PbEL04 Epitope A (Pink) and CAPE-GFP paratope 2 (orange) showing electrostatic interactions, as displayed in Table 2. Video 4.1: (top-right) FL-PbEL04 Epitope A (Pink) and CAPE-GFP paratope 2 (orange) showing electrostatic interactions in a cloud-like form. Blue (+) and red (-) regions show the polarity of interacting side chains.https://static.igem.org/peertube/streaming-playlists/hls/c926f306-b8ff-4221-b214-6d435ff48c1a/9c510269-60cd-4288-a867-7dff09683b70-master.m3u8https://video.igem.org/videos/embed/qQEPggsSYzh53FkTuJHXqE17022023-10-10T02:15:52.674ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/iWraaeUVBSK42CFbuZVZEghttps://video.igem.org/lazy-static/thumbnails/82bbbe7a-aed3-449f-9d58-f4619ada2d83.jpgSZU-China: Revisit tomato planting base (2023) [English]In late September, we returned to the Da Cheng Xin tomato planting base in Shanwei once again. At this time, the tomato seedlings had just started to grow. Farmer Cheng shared with us the various diseases that can occur during tomato cultivation and how they were currently using chemical pesticides for control.https://static.igem.org/peertube/streaming-playlists/hls/91450661-0c27-4183-935b-4e75a444a007/37a97c31-b953-44b1-a16e-fce06c9d41e4-master.m3u8https://video.igem.org/videos/embed/iWraaeUVBSK42CFbuZVZEg490352023-10-10T02:18:19.248ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6DAGXGmJGmZWb2ZQsD7wPBhttps://video.igem.org/lazy-static/thumbnails/fddf416c-a639-40e7-8569-7fa05e5eaeb2.jpgLethbridge: Video 3.0: Hydrogen Bond Results (2023)Video 3: Hydrogen Bonds between FL-PbEL04 and CAPE-GFP show 3 total hydrogen bonds, as shown in Table 2.https://static.igem.org/peertube/streaming-playlists/hls/2dbd99eb-b3d1-421c-8afa-7cc729ddaf01/fb0a8cd9-5b99-44a9-bc89-d9b2ac3c9040-master.m3u8https://video.igem.org/videos/embed/6DAGXGmJGmZWb2ZQsD7wPB15052023-10-10T02:21:07.392ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rDf8FbK3pQxpvF8jLnwyAvhttps://video.igem.org/lazy-static/thumbnails/c752b5bc-4ee7-444c-b4f5-1712c11abc7c.jpgULaval: RhCE_front (2023)Front view of RhCE. See our team wiki for more information : https://2023.igem.wiki/ulavalhttps://static.igem.org/peertube/streaming-playlists/hls/cfa7b202-9f0d-42f3-a0f2-7e9875640dd1/1b48b7f8-d5b6-451b-807a-9e71be466e8c-master.m3u8https://video.igem.org/videos/embed/rDf8FbK3pQxpvF8jLnwyAv80142023-10-10T03:06:49.184ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7V3ShtCjDcNfrataLfBQ5Jhttps://video.igem.org/lazy-static/thumbnails/b92dfed1-09ff-4d3f-aece-e5ffe62e5401.jpgWVHS-SanDiego: petase_melting (2023)This is a video of PETase melting as the temperature increases. It was made by our mentor, Fiona Kearns, using the tool VMD to help our team visualize how the enzyme denatures and loses function over time. wiki link: https://2023.igem.wiki/wvhs-sandiego/https://static.igem.org/peertube/streaming-playlists/hls/37ff04c3-08de-4e4e-b3f8-81bebb75b86a/ae3d1dbc-abe3-4f01-aaee-62eb6b9b1fbb-master.m3u8https://video.igem.org/videos/embed/7V3ShtCjDcNfrataLfBQ5J230102023-10-10T03:26:02.734ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jeN59J7wnWgehtr9HyuaSbhttps://video.igem.org/lazy-static/thumbnails/d9128085-efa9-4180-82cb-aac1bc529f0e.jpgULaval: RhCE_top (2023)Top view of RhCE. See our team wiki for more information : https://2023.igem.wiki/ulavalhttps://static.igem.org/peertube/streaming-playlists/hls/93b18eb8-21ea-4ff9-a13c-9907398c3622/60166747-036c-41af-bda7-e9e5f53b3823-master.m3u8https://video.igem.org/videos/embed/jeN59J7wnWgehtr9HyuaSb8072023-10-10T03:27:46.563ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2FiyrLD9uX5QQdwcouFVGBhttps://video.igem.org/lazy-static/thumbnails/e01394ba-b91f-4955-b11e-af498e985920.jpgULaval: RhD_front (2023)Front view of RhD. See our team wiki for more information : https://2023.igem.wiki/ulavalhttps://static.igem.org/peertube/streaming-playlists/hls/0d95f790-4654-462a-8749-e517468442ff/fbffde51-7fd8-4110-a9df-22cf23517369-master.m3u8https://video.igem.org/videos/embed/2FiyrLD9uX5QQdwcouFVGB8052023-10-10T03:28:08.558ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7y5mcg41i1qcgzwdao9Vv2https://video.igem.org/lazy-static/thumbnails/7e3af2d1-2df1-4b66-9c36-a8c93a231020.jpgULaval: RhD_top (2023)Top view of RhD. See our team wiki for more information : https://2023.igem.wiki/ulavalhttps://static.igem.org/peertube/streaming-playlists/hls/35114ff0-1ffc-41ce-bb2e-0f8405c5eb47/7e4a3a1c-40d3-458a-b3d7-7ca719c894bd-master.m3u8https://video.igem.org/videos/embed/7y5mcg41i1qcgzwdao9Vv28032023-10-10T03:28:25.912ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/w32gaNgwYLLYqidE6TaPtthttps://video.igem.org/lazy-static/thumbnails/a77234a6-204e-4bec-8fef-5722f8537a27.jpgLethbridge: Supplementary Video 10.2 (2023)Supplementary Video 10.2: Master Movie of Chimeric Anti-PRO1 Fluorescent Protein (CAP-FP), dry lab code D2. This protein is shown to bind in Supplementary Video 3.0, refer to Supplementary Table 1.0.https://static.igem.org/peertube/streaming-playlists/hls/f33a6cbe-d99c-48c3-a049-4f73683b0e0d/4d484d66-5f2c-43ae-846a-600a41453070-master.m3u8https://video.igem.org/videos/embed/w32gaNgwYLLYqidE6TaPtt26002023-10-10T04:45:54.008ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aAJR2VaZF9ntv6L3XJRkHrhttps://video.igem.org/lazy-static/thumbnails/7ad88d4c-f425-40ff-bff9-64a5c71fe39d.jpgLethbridge: Supplementary Video 2.0 (2023)Supplementary Video 2.0: Docking Simulation of the top 5 predictions of FL-PbEL04 docking simulation with Chimeric Anti-PbEL04 Florophore Probe (CAPE-FP), based on GRAMM results. The fourth orientation was the best prediction due to the contacts made, scoring and location on the receptor.https://static.igem.org/peertube/streaming-playlists/hls/4dbbf0c6-d955-4d11-84b4-94a4ac4e9437/3aa6cc4a-de29-4c84-8e9a-6c0c95c7bb08-master.m3u8https://video.igem.org/videos/embed/aAJR2VaZF9ntv6L3XJRkHr176032023-10-10T04:49:21.903ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5cskfdqxpymPcSDQwN1UKNhttps://video.igem.org/lazy-static/thumbnails/9f101054-cd57-4fbe-83be-27a02fde97cd.jpgLethbridge: Supplementary Video 14.1 (2023)Supplementary Video 14.1: Master movie of a Fluorophore that binds specifically to FL-PbEL04. This version does not have the linkers or the added-on histidines, dry lab code of K1. The docking simulation is shown in Supplementary Video 2. https://static.igem.org/peertube/streaming-playlists/hls/21fdf6b2-c6f6-4e77-97bc-6e3cc8a9f35c/f108405a-7383-40eb-8227-0bd948f4ae02-master.m3u8https://video.igem.org/videos/embed/5cskfdqxpymPcSDQwN1UKN41002023-10-10T04:49:44.315ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ePEzeB9jorfsPEZcSiKuDAhttps://video.igem.org/lazy-static/thumbnails/26831168-457c-4b47-b5fb-3bebcafd899c.jpgMcGill: Patient Consultation Introduction Video (2023) [English]This is an introduction to our Human Practices consultations involving pancreatic cancer patients. The purpose of these consultations was to better understand the experiences of pancreatic cancer patients so that our team and researchers can better support them and develop new therapeutics with patient impact in mind. https://2023.igem.wiki/mcgill/.https://static.igem.org/peertube/streaming-playlists/hls/6fee87fe-d0d9-438e-adb9-e6db704a03bc/f0ea7a74-21f1-4e42-a67b-e6f51d140094-master.m3u8https://video.igem.org/videos/embed/ePEzeB9jorfsPEZcSiKuDA740692023-10-10T05:39:48.791ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/vz78yNFtMe7ozcZLzSV8Grhttps://video.igem.org/lazy-static/thumbnails/7a88e4f9-ac53-414d-a2af-213b1f7cb8b9.jpgNJTech-China-A: Simulating the Lspetase process under denaturing conditions (2023)NJTech-China-A: Simulating the Lspetase process under denaturing conditions (2023)https://static.igem.org/peertube/streaming-playlists/hls/ef7857f4-19a8-4842-87a8-725346634cad/f26818ae-7cee-46b1-995e-6c79507bbd70-master.m3u8https://video.igem.org/videos/embed/vz78yNFtMe7ozcZLzSV8Gr200102023-10-10T11:24:50.973ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6MxXojygMSC7mxQoMZJCVPhttps://video.igem.org/lazy-static/thumbnails/1bc260f9-0e2e-426b-9ed5-eb68b8c3de09.jpgHUST-China: MFC light up the LED bulb (2023) [English]The MFC device we constructed lighted up a LED bulb.https://static.igem.org/peertube/streaming-playlists/hls/2ed9db19-dd7e-4f76-86a4-e9e6cdada601/81aae949-0a48-4fa4-9203-1b3bac9ebfba-master.m3u8https://video.igem.org/videos/embed/6MxXojygMSC7mxQoMZJCVP1701512023-10-10T08:52:12.935ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3o5ghQuqyHU8Vkj3sTKtgEhttps://video.igem.org/lazy-static/thumbnails/665ef9fa-6b41-41b4-b384-9d211d47ec48.jpgUM-Macau: WHEATTY: What is gluten intolerance or celiac diseas (2023) [English]UM-Macau: WHEATTY: What is gluten intolerance or celiac diseas (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/1347448f-5c81-4c2d-bbaa-9234a61e0200/02b55ae0-35ae-4d3b-8eab-05170349dd97-master.m3u8https://video.igem.org/videos/embed/3o5ghQuqyHU8Vkj3sTKtgE145092023-10-10T10:08:16.820ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2urBVUrhYVr4eYhqN1uK9Chttps://video.igem.org/lazy-static/thumbnails/06978b55-347d-43ac-944f-ba2f29e759eb.jpgTU-Dresden: Biolistic Transformation of Diatoms Part I (2023) [English]This video gives an introduction to the biolistic transformation of diatoms and the live-diatom silica immobilization method. Here, will go through all necessary preparations such as the cleaning and coating of tungsten particles. You can find a written protocol and further information on our wiki: https://2023.igem.wiki/tu-dresden/experimentshttps://static.igem.org/peertube/streaming-playlists/hls/0c11c0b6-3b3b-4d6a-b4e9-0a367c608220/02e0eaba-e3a9-4cf1-8d39-c6eb6ede80af-master.m3u8https://video.igem.org/videos/embed/2urBVUrhYVr4eYhqN1uK9C7530452023-10-10T11:30:59.154ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6dvcBQmdyaEggLHdbEY7Ezhttps://video.igem.org/lazy-static/thumbnails/51d0810c-3a74-4e34-81f1-fcc8c05978f8.jpgNJTech-China-A: Simulating the Lspetase process under oxidation conditions (2023)NJTech-China-A: Simulating the Lspetase process under oxidation conditions (2023)https://static.igem.org/peertube/streaming-playlists/hls/2a3c9d26-7f56-49d8-b5a1-ac9e6cb5e075/378db1a4-9cac-4513-aa54-aef35e80ff7c-master.m3u8https://video.igem.org/videos/embed/6dvcBQmdyaEggLHdbEY7Ez20042023-10-10T11:33:38.221ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2n4NkNhjHmRgPLXa7CBbxmhttps://video.igem.org/lazy-static/thumbnails/ee8b0e2c-e199-4ba0-9441-6d12d08f89fa.jpgTU-Dresden: Biolistic Transformation of Diatoms Part II (2023) [English]This is part II of the biolistic transformation of diatoms series. Here, we will cover the transformation itself and the plating. https://static.igem.org/peertube/streaming-playlists/hls/0b0a195a-aea5-4e35-9767-26ac678805ba/475e0216-bfdb-467d-a80e-f35f0cb18b92-master.m3u8https://video.igem.org/videos/embed/2n4NkNhjHmRgPLXa7CBbxm6280192023-10-10T12:06:58.594Zbiolistic-transformationdiatomsYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dGXmGjZUaKfYoGUfBwSyJBhttps://video.igem.org/lazy-static/thumbnails/8d48b946-c368-4aa2-b2ba-5637090ff5c8.jpgTU-Dresden: Biolistic Transformation of Diatoms Part III (2023) [English]This is part III of the biolistic transformation of diatoms series. Here, we will cover the screening procedure that follows the transformation. https://static.igem.org/peertube/streaming-playlists/hls/66e58791-df30-4d0f-87ac-8070520f6437/4ccbb194-5db9-46f5-9bb3-64c6791cfb0e-master.m3u8https://video.igem.org/videos/embed/dGXmGjZUaKfYoGUfBwSyJB6580102023-10-10T12:24:04.430Zbiolistic-transformationdiatomsYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5iKzsGn7z9uVM16ixwJD3thttps://video.igem.org/lazy-static/thumbnails/50ea9afd-d8a1-4763-b101-89bd3036bbd7.jpgSVCE-CHENNAI: Homepage video (2023) [English]What makes Agrobuddy awesome? https://static.igem.org/peertube/streaming-playlists/hls/22df0dcf-a35a-4526-a5ea-2cd42a3d7c53/ef37dabd-9b94-457a-86ff-a011d09345dd-master.m3u8https://video.igem.org/videos/embed/5iKzsGn7z9uVM16ixwJD3t1130522023-10-10T12:35:58.593ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8PKBNvQw3Qpq96pQdBKemnhttps://video.igem.org/lazy-static/thumbnails/38b75c81-59ce-4d9d-a97a-d9774ffdd45a.jpgAFCM-Egypt: SDGs Film (2023) [English]AFCM-Egypt: SDGs Film (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/3f5aced3-406d-4038-8049-5bb14c110b59/519a32b3-57e3-422f-b5ec-5cfc21f52742-master.m3u8https://video.igem.org/videos/embed/8PKBNvQw3Qpq96pQdBKemn3330502023-10-10T13:16:54.685ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qQ37Jqi7ERtX4115p49njXhttps://video.igem.org/lazy-static/thumbnails/ba2417ce-b2ce-483d-8042-157f5223441b.jpgBNUZH-China: Global Voices of Hope, Messages for Cancer Fighters (2023) [English]Multilingual Video | Global Voices of Hope: Messages for Cancer Fighters Our project was brought to life by the remarkable collaboration of students who embarked on exchange programs not only in the United States and Australia but also within the vast and diverse landscapes of mainland China. Together, we collected messages of love and hope, expressed in various languages, from individuals across the globe who wished to extend their heartfelt support to cancer patients everywhere. 🌍 Cancer knows no boundaries; it speaks a universal language of resilience. 🌍 In a world where borders blur and languages intertwine, where cancer touches millions with its unforgiving challenge, we present to you a beacon of unity, empathy, and compassion. 🌟 Uniting the World, One Message at a Time 🌟 Our project was born from the incredible synergy of students spanning continents—from the United States and Australia to the vast tapestry of mainland China. Together, we embarked on a journey to collect messages of love and hope from individuals worldwide, each speaking in their native tongue. 🗣️"Global Voices of Hope"🗣 This video program is not just a collection of messages; it's a testament to the boundless strength of our shared humanity. It's a symphony of voices, harmoniously blending stories, courage, and love from every corner of the globe. 💪 A Universal Truth 💪 In every message, there's unwavering courage. In every story, there's remarkable resilience. In every word, there's love and unity. "Global Voices of Hope" conveys a universal truth to cancer patients:"You are not alone." 🌎 Join Our Global Community of Compassionate Hearts 🌎 Let this video be your source of strength, your reminder that the world stands with you in solidarity. Together, we'll face the formidable challenge of cancer, arm in arm, language by language. Tune in to "Global Voices of Hope: Messages for Cancer Patients" and be inspired by the tapestry of human compassion that tran...https://static.igem.org/peertube/streaming-playlists/hls/c9105536-c1a5-4499-8502-a040b4c00d0f/bf540f88-ff77-4cb3-ba59-dcc2b7d98d8e-master.m3u8https://video.igem.org/videos/embed/qQ37Jqi7ERtX4115p49njX1930432023-10-10T13:36:27.904ZBNUZH-Chinamultilingualcancerhuman practiceYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7nYtHHEnm79VqnUHoFiDzuhttps://video.igem.org/lazy-static/thumbnails/5786b9a7-7d89-4f93-aee9-18744e46e97a.jpgCornell: Enzyme Immobilization Part II: Encapsulation Automation (2023) [English]Enzyme Immobilization Part II: Encapsulation Automation https://2023.igem.wiki/cornell/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/33a841c3-25c1-4cc1-b81a-2ae964013ee2/c95dfcfd-cf9b-479b-b9d8-f5e58835662f-master.m3u8https://video.igem.org/videos/embed/7nYtHHEnm79VqnUHoFiDzu190112023-10-10T14:01:20.972ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4CYigUB5iKcqffvLWJqHD7https://video.igem.org/lazy-static/thumbnails/83863a65-92f5-4d08-b060-79107f920d1c.jpgCornell: Reactor Design (2023) [English]Reactor Design https://2023.igem.wiki/cornell/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/1d74e2ef-cee7-4bcb-8890-770be94890cc/45109fad-765e-40fb-bb26-b285a345f032-master.m3u8https://video.igem.org/videos/embed/4CYigUB5iKcqffvLWJqHD750122023-10-10T14:03:42.355ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jnCD3ictUi7TstiHxU9LrGhttps://video.igem.org/lazy-static/thumbnails/7e9f6883-b0cc-4c79-b3b2-60ad5c9f1106.jpgBNUZH-China: A Drama for kids | FeFighterS (2023) [English]A Drama for Kids: FeFighterS Introduction: Art Alive is a series of educational activities aimed at engaging young audiences with the world of art and science in an entertaining and informative manner. One of the highlights of this series is the captivating children's educational drama titled "FeFighterS." This drama unfolds an imaginative journey into the human body, where cells and microorganisms come to life, and the battle against a formidable foe, cancer, takes center stage. 🌟 Overview: "FeFighterS" is a children’s play conducted by our team member, Katerina Li, who served as one of the actors and the playwright. Designed specifically for elementary school students, it combines creativity, storytelling, and scientific knowledge to demystify the complex world of cancer and cancer treatment. 🎨 Production and Filming: The play was initially entrusted to the Drama Troupe from BNUZH and was filmed twice. The first filming took place on September 15th, and it was subsequently played during one of our activities with children, garnering valuable feedbacks. The final filming occurred on September 27th,2023. 📽️🗓️ Target Audience: "FeFighterS" is tailored for children below the 6th grade and serves as an engaging educational tool to popularize biological scientific knowledge. It aims to instill curiosity, foster a love for learning, and empower young minds with a positive attitude towards health and science. 📚🔬https://static.igem.org/peertube/streaming-playlists/hls/94c9b1c4-0d32-42b6-979e-b9d70ac9fca2/d4db47f2-373e-44ca-883b-eb4ea6725350-master.m3u8https://video.igem.org/videos/embed/jnCD3ictUi7TstiHxU9LrG1220532023-10-10T14:22:11.039Zchildren's playdramahuman practiceeducationYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hqbvgN12EPi4cvpGGDg35uhttps://video.igem.org/lazy-static/thumbnails/da8231d4-1af8-4810-9b5e-6f06e32a5630.jpgBIT-China: Light Control System Demo (2023) [English]An animation will be placed on the homepage. https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/84f28af4-2716-4bdb-8fe6-b5e03d717274/adc5c862-48e8-4b03-b1a1-545927481610-master.m3u8https://video.igem.org/videos/embed/hqbvgN12EPi4cvpGGDg35u19042023-10-10T14:59:42.719ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/456ZbDKnSZpfTpP4GETHTchttps://video.igem.org/lazy-static/thumbnails/986bdd4b-02e4-4057-8e13-7a48dc79c43f.jpgDUT-China: home_bg (2023)homepage background videohttps://static.igem.org/peertube/streaming-playlists/hls/18de147c-0129-49cf-847a-a484d1c1b2f5/15beb77f-9dae-43f4-b9f7-9bac1362f685-master.m3u8https://video.igem.org/videos/embed/456ZbDKnSZpfTpP4GETHTc404292023-10-10T14:57:48.470ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sMk4CKtbseHib9XicELUS4https://video.igem.org/lazy-static/thumbnails/e6dc8cad-f84b-4b38-bebf-33c6b81bb500.jpgNWU-CHINA-A: Detection of CAT activity in EcN transformed by pET-28a(+)-CAT-SOD-Elafin. (2023) [E...NWU-CHINA-A: Detection of CAT activity in EcN transformed by pET-28a(+)-CAT-SOD-Elafin. (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/d8e1d294-e171-482e-bb92-7719d1d40787/109c9149-0056-4b81-8206-620347358ca8-master.m3u8https://video.igem.org/videos/embed/sMk4CKtbseHib9XicELUS432052023-10-10T15:05:07.253ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aEYiF2mF6qLZypKPDM7tRYhttps://video.igem.org/lazy-static/thumbnails/34514b0c-f77a-4e97-b19a-e418c662a9ae.jpgNWU-CHINA-A: Elafin activity from pET-28a(+)-CAT-SOD-Elafin transformation into EcN (2023) [English]NWU-CHINA-A: Elafin activity from pET-28a(+)-CAT-SOD-Elafin transformation into EcN (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/4e5335d0-171b-4258-b304-cfda159a9b3e/b152d08b-00e9-4c80-8c47-9095c6c62775-master.m3u8https://video.igem.org/videos/embed/aEYiF2mF6qLZypKPDM7tRY33052023-10-10T15:08:00.288ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3qspwMZ2Xb8hsPijepGu7nhttps://video.igem.org/lazy-static/thumbnails/7ce1810f-e983-4d98-a363-f250d96a86f9.jpgNWU-CHINA-A: Elafin activity from pET-28a(+)-CAT-SOD-Elafin transformation into E.coli BL21(DE3)....NWU-CHINA-A: Elafin activity from pET-28a(+)-CAT-SOD-Elafin transformation into E.coli BL21(DE3). (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/139c66a0-fecb-4612-b17b-a3d8a4dddb31/eeef6376-830c-4e47-8a0a-27fab0ea06e0-master.m3u8https://video.igem.org/videos/embed/3qspwMZ2Xb8hsPijepGu7n270132023-10-10T15:10:04.451ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tGzw7WFszrhqSXi37iGhMWhttps://video.igem.org/lazy-static/thumbnails/9aea3f50-97f8-40f0-be51-2127adda87c2.jpgBIT-China: MVA Demo-yellow(2023) [English]An animation will be placed on the homepage. https://2023.igem.wiki/bit-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/e05126d0-edc8-445f-a832-3f122be8ccb8/a485ac66-4b00-4077-aa92-4811cf4719ca-master.m3u8https://video.igem.org/videos/embed/tGzw7WFszrhqSXi37iGhMW6002023-10-10T15:48:49.935ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/x3SKfonRxt3ggJqurN25rBhttps://video.igem.org/lazy-static/thumbnails/28d5a6bf-bfed-42fd-8629-95588d75a411.jpgPatras-Med: Collaboration (2023) [English]Collaboration Video with iGEM BITS Goa --- https://2023.igem.wiki/patras-med/collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/fb720f22-9052-40d3-9e12-2d5a42d30105/b34c2b97-3803-4cfa-b319-c56383fec9e2-master.m3u8https://video.igem.org/videos/embed/x3SKfonRxt3ggJqurN25rB2150102023-10-10T15:52:04.214ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3PvjVibqBLXjV9h7y4G9hHhttps://video.igem.org/lazy-static/thumbnails/b244b0c7-a963-4cdb-a80e-fc98fb6f173c.jpgDUT-China: ba duan jin (2023) [English]ba duan jin exercise videohttps://static.igem.org/peertube/streaming-playlists/hls/16d44eb2-c6fc-4331-b521-e2707342d5d9/cea95fab-5986-4541-8672-b32df088a927-master.m3u8https://video.igem.org/videos/embed/3PvjVibqBLXjV9h7y4G9hH1400122023-10-10T16:01:54.789ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wkGdhGssuzxwq7pgq79UL2https://video.igem.org/lazy-static/thumbnails/a976d6c3-c845-41bb-b429-83595c65b796.jpgFZPt-CHINA: The Importance of synthetic BIoIogy, THE "WEAPON" OF LIFE SCIENCE (2023) [English]The Importance of Microalgae - The "weapon" of Life Science.This video introduces the history, definition, advantages and significance of synthetic biology. Synthetic biology refers to the engineering that designs, transforms and even creates artificial life under the guidance of engineering thought. Its development can be divided into four stages, and it is of great significance to human health and green life. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/f5b212a7-8abb-43f4-a16d-ec2d1c0b8129/56decae3-409d-41bd-8231-dcbac53969e9-master.m3u8https://video.igem.org/videos/embed/wkGdhGssuzxwq7pgq79UL2161032023-10-10T16:19:56.540ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/iEgvXR1SNLygDwVJBZEH6Yhttps://video.igem.org/lazy-static/thumbnails/af359eef-c6ba-4781-b8e5-4e6176a270b6.jpgFZPt-CHINA: The Importance of Microalgae, Microplastics (2023) [English]This video focuses on what microplastics are, whether microplastics enter the human food chain, and the importance of microalgae degrading microplastics. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/8f032ed4-2915-4bb9-9cda-d771f87cca7e/1a85cf8f-4c7e-46f3-a850-abd4ed3af6d4-master.m3u8https://video.igem.org/videos/embed/iEgvXR1SNLygDwVJBZEH6Y1850102023-10-10T16:38:18.898ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/f3pS4Lk4jvjDHwUsUWxA1dhttps://video.igem.org/lazy-static/thumbnails/ec9274ae-afc2-4819-9931-76932bff6b86.jpgFZPt-CHINA: The Importance of Microalgae, Primary Producers (2023) [English]The importance of microalgae.This video focuses on what is microalgae and the role of microalgae, and further explains the mechanism of the primary producer and how to better use microalgae and give full play to its advantages. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/71b6228e-d513-41eb-a08f-2763b2a4300c/95f68c0e-0b79-40b1-a6c3-7c273f54129a-master.m3u8https://video.igem.org/videos/embed/f3pS4Lk4jvjDHwUsUWxA1d445042023-10-10T16:56:14.331ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eyXgSd82UbBNVA4PVUr58Ehttps://video.igem.org/lazy-static/thumbnails/f5880f77-e91d-4660-8324-e361d175bfc3.jpgFZPt-CHINA: The Importance of Microalgae, The Double Carbon Target (2023) [English]This video focuses on what microplastics are, whether microplastics enter the human food chain, and the importance of microalgae degrading microplastics. WIKI Link：https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/6de0aab0-51c5-4f9c-b198-d7a0c3b65ed4/db6c4ad2-253c-4796-95dd-38a03e97fbc0-master.m3u8https://video.igem.org/videos/embed/eyXgSd82UbBNVA4PVUr58E294012023-10-10T17:18:21.153ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pfzfRmo2rD65B7r4SoH7RGhttps://video.igem.org/lazy-static/thumbnails/ed79b9fa-2367-43fd-8203-117440aa9170.jpgFZPt-CHINA: A Popular Science Song, Microalgae Song (2023) [English]With the theme of synthetic biology, this song will combine popular science lyrics with dynamic rhymes, using team research directions as clues to find simple, easy to understand, and catchy scientific terms. Smooth and flexible melodies and sound effects will be added, and after production, multiple modifications will be made. The song will be auditioned within the team and discussed how to present the best results. After completion, it will be widely used in external activities such as community lectures, This helps the team showcase the charm of synthetic biology in a more memorable way during community promotion, while also enhancing the team's unique competitive advantage. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/bc4b18c3-34ac-469e-841d-774d617cd862/c6254d1a-d1bb-4e4b-9b9b-be2b128142a5-master.m3u8https://video.igem.org/videos/embed/pfzfRmo2rD65B7r4SoH7RG1010102023-10-10T17:37:17.888ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6LzZZtVHDgKBsLjHWS7Aqahttps://video.igem.org/lazy-static/thumbnails/6d83c4f7-5745-47a7-980e-fa20762e65f0.jpgHUST-China: hardware heat control (2023) [English]we construct a hardware with a heat controler and we try to verify ithttps://static.igem.org/peertube/streaming-playlists/hls/2eb75f50-fb48-4e1e-9d73-ba5f1f71df51/ad32083b-a1ec-4a69-b2da-9d6d74d52785-master.m3u8https://video.igem.org/videos/embed/6LzZZtVHDgKBsLjHWS7Aqa2201462023-10-10T17:55:35.399ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/x5uZdDjatJ6PNm7Pze7QjQhttps://video.igem.org/lazy-static/thumbnails/0bdc1d88-02e8-4d9c-9e1d-4eae97620f63.jpgFZPt-CHINA: Education Lecture Collection (2023) [English]FZPt-CHINA team conducted educational outreach activities for various age groups, including kindergarten, primary school, junior high school, high school, and university. The educational promotion activities revolve around microalgae and synthetic biology, attracting many students to participate through colorful methods such as pictures and videos, enabling them to better understand relevant knowledge. Once the activities are carried out, they are highly praised by the general public in society. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/fbac231a-004f-4f22-8a2e-a5757ad83424/fc66d3ba-a902-4212-b587-2102be7c6cea-master.m3u8https://video.igem.org/videos/embed/x5uZdDjatJ6PNm7Pze7QjQ88062023-10-10T17:56:32.470ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5LM9pRTqyMCdTkbxHzN7iDhttps://video.igem.org/lazy-static/thumbnails/99af8ae8-6cca-41f7-954a-47c73b742b76.jpgTU-Eindhoven: Aftermovie Mini Jamboree (2022) [English]Aftermovie Mini Jamboree Eindhoven 2022https://static.igem.org/peertube/streaming-playlists/hls/26a51a25-26eb-43c2-a188-d792dfd65777/0fe3effb-736b-4630-a436-72bfc626b87e-master.m3u8https://video.igem.org/videos/embed/5LM9pRTqyMCdTkbxHzN7iD113082023-10-10T18:18:49.505ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wVij46dcaTsATpQUCjaGbDhttps://video.igem.org/lazy-static/thumbnails/7d4b652f-a448-4c6e-86e7-7a18e7b0012d.jpgHUST-China: A Science Lecture for Kids at Wuhan Museum of Science and Technology (2023) [English]A Science Lecture for Kids at Wuhan Museum of Science and Technology https://static.igem.org/peertube/streaming-playlists/hls/fa633f80-8419-45fd-97cc-f4d01a477b11/d4037b70-e7b5-484d-9cdf-748a736d3d8e-master.m3u8https://video.igem.org/videos/embed/wVij46dcaTsATpQUCjaGbD78052023-10-10T18:09:05.722ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9pAT6e9DZw5tD55mCwY29Bhttps://video.igem.org/lazy-static/thumbnails/2b49c703-07bf-4a99-96e0-be39feeb7941.jpgFZPt-CHINA: Protein Synthesis (2023) [English]Protein is a nutrient that we consume every day. Various amino acids will be synthesized into protein semi-finished products under the function of ribosomes, and this protein semi-finished product is called peptides. The semi-finished protein synthesized by the ribosome also needs to be processed by the Golgi apparatus. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/4414b64b-474e-4486-8e25-417e46fe1337/bd69d562-2772-44ff-9130-4e434dff151e-master.m3u8https://video.igem.org/videos/embed/9pAT6e9DZw5tD55mCwY29B144012023-10-10T18:18:20.874ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8vjrXx7zJWTHQ6uWBft9Grhttps://video.igem.org/lazy-static/thumbnails/829dc5b0-25f6-44d2-857b-83996f74485b.jpgthessaloniki: SDGs Collaboration (2023) [English]Step into the world of scientific collaboration and innovation as iGEM teams join forces to confront global challenges deeply connected to sustainable development. In this brief video, iGEM teams collaborate to present their projects and ardently work towards addressing Sustainable Development Goals (SDGs). From creative environmental solutions to impactful health initiatives, we unite to shape a more sustainable future, driven by shared knowledge and collective action. The iGEM teams that participated are iGEM Patras Medicine, iGEM Bulgaria, iGEM IONIS, iGEM KU LEUVEN and iGEM Thessaloniki. The video was created by iGEM Thessaloniki. (https://2023.igem.wiki/thessaloniki/) https://static.igem.org/peertube/streaming-playlists/hls/3cc7e89d-743b-409e-bbd0-d9670d1b78c1/2b59d33e-1e89-460d-ac1a-a7a7d7e7c489-master.m3u8https://video.igem.org/videos/embed/8vjrXx7zJWTHQ6uWBft9Gr1440142023-10-10T18:27:30.029ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/bEyiN6XQAUJUY96Wi76i1Jhttps://video.igem.org/lazy-static/thumbnails/1d20b966-1921-4b55-b8f4-71913d8a1384.jpgCornell: Bioreactor (2023) [English]Cornell ENERGEM BioReactor Cornell iGEM Wiki: https://2023.igem.wiki/cornell/https://static.igem.org/peertube/streaming-playlists/hls/565d8f44-6d16-486d-9b7b-16b6540c5e56/4bcac517-dcaa-40d0-b5f4-981a370989d7-master.m3u8https://video.igem.org/videos/embed/bEyiN6XQAUJUY96Wi76i1J50332023-10-10T19:04:11.029ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eQWRDj8mgyZMVULexnHCwChttps://video.igem.org/lazy-static/thumbnails/6a4d8a1a-0b86-48d7-b47e-52efff25c996.jpgMSP-Maastricht: Octahedron at 25C (2023)The video contains a molecular dynamic simulation for a DNA origami octahedron at room temperature. (https://2023.igem.wiki/msp-maastricht/)https://static.igem.org/peertube/streaming-playlists/hls/701c4f48-9532-4b73-b45e-97f6fe197258/0d4c38f9-0dea-4772-8c11-3ba892f55d5a-master.m3u8https://video.igem.org/videos/embed/eQWRDj8mgyZMVULexnHCwC20312023-10-10T19:12:45.332ZDNA origami simulationYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uXnGwSwZ8k2GT2SajyfBtMhttps://video.igem.org/lazy-static/thumbnails/1bfd5954-5a33-4f53-b470-59f4673a3c9c.jpgMSP-Maastricht: Octahedron at 90C (2023)An oxDNA molecular dynamics simulation that shows the disassembly of a DNA origami octahedron at 90 degrees Celsius. (https://2023.igem.wiki/msp-maastricht/)https://static.igem.org/peertube/streaming-playlists/hls/ea7b2986-9a29-4038-98cf-40c11ff213e7/1f7cf930-d7e1-40f6-8787-5f37fe1a66b5-master.m3u8https://video.igem.org/videos/embed/uXnGwSwZ8k2GT2SajyfBtM2072023-10-10T19:18:32.067ZDNA origami simulation YESiGEM 2023 TeamsNOhttps://video.igem.org/w/vQTBYQQGHoTQQZSUzaPj4ohttps://video.igem.org/lazy-static/thumbnails/287bb1c6-8f1e-410c-a85e-896e474c9242.jpgUAlberta: Farmer Interview (2023) [English]This is an interview that we did of farmers in Alberta, for our 2023 UAlberta iGEM project. This was done for the integrated human practices.https://static.igem.org/peertube/streaming-playlists/hls/f1ac88c5-c75a-444c-b754-b48606525cd4/a537e3fc-d13f-41a5-9879-eac2a4b659ed-master.m3u8https://video.igem.org/videos/embed/vQTBYQQGHoTQQZSUzaPj4o571022023-10-10T19:54:32.181ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kidvnhvxraxBkGzUMmPJAYhttps://video.igem.org/lazy-static/thumbnails/0fed8f45-0305-40da-98ab-a1ea698e5987.jpgWageningenUR: Simulation of the interactive model in NetLogo (2023) [English]Simulation of the interactive model in NetLogo. WageningenUR 2023https://static.igem.org/peertube/streaming-playlists/hls/9c44fc65-c30e-46a6-9bba-5f2bdbf5b90c/2eff5f4f-30c9-45d5-8dca-4acfcc5feeda-master.m3u8https://video.igem.org/videos/embed/kidvnhvxraxBkGzUMmPJAY240182023-10-10T20:21:45.335ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nUg2h4v5vb59F4LCSeUrBvhttps://video.igem.org/lazy-static/thumbnails/6b696608-9b91-4da7-8c19-bf309b620b3b.jpgUniMuenster: alphafold video (2023)This is an Alphafold wiki for our Wiki. https://2023.igem.wiki/unimuenster/https://static.igem.org/peertube/streaming-playlists/hls/b15bd875-b050-4ac5-ab3b-a260ed428bbf/ace3ef18-4176-4d8e-81cd-5d8411e5e852-master.m3u8https://video.igem.org/videos/embed/nUg2h4v5vb59F4LCSeUrBv6022023-10-10T20:51:10.759ZalphafoldYESiGEM 2023 TeamsNOhttps://video.igem.org/w/h6WChxSDADSguV9ACpaDVehttps://video.igem.org/lazy-static/thumbnails/55259e5e-8f3a-4686-bca5-98c88950cf79.jpgLethbridgeHS: AbilityAid (2023)LethbridgeHS: AbilityAid (2023)https://static.igem.org/peertube/streaming-playlists/hls/82669a04-ecb1-48d0-a008-6581921b261b/3167e7be-47ff-4aa5-bd27-6fd689d372c4-master.m3u8https://video.igem.org/videos/embed/h6WChxSDADSguV9ACpaDVe33042023-10-10T21:23:15.099ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ikPf6qHbFCM2hnMHFxvLaghttps://video.igem.org/lazy-static/thumbnails/952ecb35-66ba-4aec-b2b2-afd97a5414d5.jpgUPNAvarra-Spain: Lab Tour (2023)A short tour of our lab.https://static.igem.org/peertube/streaming-playlists/hls/8c6f9a76-ff7c-4f1b-9afb-abff39f5f4e1/da0de318-e7dc-4a8d-a575-c36c2404c85c-master.m3u8https://video.igem.org/videos/embed/ikPf6qHbFCM2hnMHFxvLag59012023-10-25T09:51:27.049ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1Mo94gb62dP2mLM2HVNRUohttps://video.igem.org/lazy-static/thumbnails/6f094560-ed78-49b7-8b77-133169fb6fd0.jpgFreiburg: Brief Guide on How to Setup CellDEG Cultivators For Cyanobacteria (2023)Do you want to explore the potential of cyanobacteria but don't know how to cultivate them? We were in a similar place when Prof. Dr. Annegret Wilde (University of Freiburg) suggested giving the CellDEG cyanobacteria cultivation system a go. It turned out easy to use and our Synechococcus elongatus PCC 7942 grew happily. Therefore, we want to help you at the start of the cyanobacteria cultivation journey by sharing the growth medium we used + how to assemble the CellDEG (HDC.10B) cultivators. Lastly, we want to thank Hess lab (University of Freiburg) for kindly sharing the FOM medium recipe and tips on how to use the CellDEG cultivation system.https://static.igem.org/peertube/streaming-playlists/hls/06561cfc-c9f3-458b-b99d-532686ffdca2/b417fa7b-ac59-4ffe-83d7-6b82401b3f47-master.m3u8https://video.igem.org/videos/embed/1Mo94gb62dP2mLM2HVNRUo1380172023-10-10T21:54:54.798ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1hfExhdEz3QN514Uu5bErahttps://video.igem.org/lazy-static/thumbnails/906d29ae-9e3f-457c-a9ac-ec91b424c2c6.jpgHamburg: Nanobody Implementation (2023)iGEM Team Hamburg 2023 - transFERRITIN https://2023.igem.wiki/hamburg/ Designer: Lisa Siemers (Team Member)https://static.igem.org/peertube/streaming-playlists/hls/0244f007-f170-4f7e-8950-0eb575e834db/0200b375-f6fb-4770-96d7-fc02d533430d-master.m3u8https://video.igem.org/videos/embed/1hfExhdEz3QN514Uu5bEra1405722023-10-10T22:21:47.735ZWiki VideotransFERRITINHamburgYESiGEM 2023 TeamsNOhttps://video.igem.org/w/91dQB8ZmmvUkdeL6bDsXVRhttps://video.igem.org/lazy-static/thumbnails/b87f7f5f-f130-4f39-ba57-253ab89a58d7.jpgLethbridge: Global News Interview Clip (2023) [English]Lethbridge: Global News Interview Clip (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/40d10560-1e2d-4ac8-9f7c-af031a0070cf/93b937a9-076b-4fc5-99a1-dccade89206e-master.m3u8https://video.igem.org/videos/embed/91dQB8ZmmvUkdeL6bDsXVR510112023-10-10T23:53:51.686ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8Qak3Fh3PchTwYdQ188QfQhttps://video.igem.org/lazy-static/thumbnails/cfd13cf5-f827-4e83-b04f-bfe2b33ebc02.jpgUSAFA: Interview with Mr. Evan McCollum (2023) [English]The USAFA iGEM Team completes an interview with a Lyme Disease patient.https://static.igem.org/peertube/streaming-playlists/hls/3f696b9f-4f05-4a19-8fd6-b7f6f60a76a4/f7d3b342-8145-4e1c-8db5-712d1df2d5d7-master.m3u8https://video.igem.org/videos/embed/8Qak3Fh3PchTwYdQ188QfQ9210142023-10-11T01:45:42.522ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ikbENNW2qNZcRbpFScEAvchttps://video.igem.org/lazy-static/thumbnails/81ca80e3-5fb9-4da4-92f5-0eb597c34eb3.jpgUSAFA: Dr. Fune Lyme Interview (2023) [English]The USAFA iGEM Team interviews an infectious disease specialist, Dr. Funehttps://static.igem.org/peertube/streaming-playlists/hls/8c59105c-4cc2-44d3-b606-c1e2308ead85/0ff234f1-2363-49c6-bc09-4f4c32261c58-master.m3u8https://video.igem.org/videos/embed/ikbENNW2qNZcRbpFScEAvc1123042023-10-11T01:48:35.199ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tN6y3QnHgYYw6NV6nRsofKhttps://video.igem.org/lazy-static/thumbnails/2f4ee071-e8e1-43fe-8b62-a38619f85a0d.jpgUSAFA: Col Ret Nicole Malachowski Lyme Interview (2023) [English]The USAFA iGEM Team interviews a Lyme Disease patient and Subject Matter Expert (SME), Col. (ret.) Nicole Malachowski.https://static.igem.org/peertube/streaming-playlists/hls/e116610e-b170-45b6-9273-9b279f03066f/e1031cdf-d027-4446-ba1e-08b2923ecf18-master.m3u8https://video.igem.org/videos/embed/tN6y3QnHgYYw6NV6nRsofK1793062023-10-11T01:50:30.800ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/o8zGvhcQjNbdcLAfL5w355https://video.igem.org/lazy-static/thumbnails/1accc870-77a9-414b-92d2-729f5fdabfb4.jpgNAU-CHINA: senior high school (2023) [Chinese]When the captain of NAU-CHINA stated the knowledge of biological technology, the senior high school students cheered and clapped their hands fervently. https://2023.igem.wiki/nau-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/b3380635-fd62-47d1-8d0f-f2fed435de24/cf4d732b-88df-4935-a5a5-44f643c69922-master.m3u8https://video.igem.org/videos/embed/o8zGvhcQjNbdcLAfL5w35514082023-10-11T01:58:44.628ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8HK5mhkK6WZspFMAMDBB8dhttps://video.igem.org/lazy-static/thumbnails/55b0ec94-d49a-4348-a2c7-e10ba53daf11.jpgThinker-SC: hardware (2023) [English]Thinker-SC: hardware (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/3e8402d7-5a2a-4b15-acda-b668c9c04b76/d22d6423-0796-48a0-8615-7090b83cb6c2-master.m3u8https://video.igem.org/videos/embed/8HK5mhkK6WZspFMAMDBB8d73062023-10-11T01:58:08.236ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8PRibbL6c86NqZHHN9YUanhttps://video.igem.org/lazy-static/thumbnails/08b09079-b420-498f-bd56-519ee918ad24.jpgNAU-CHINA: Primary school (2023) [Chinese]Primary school students cheered "NAU-CHINA2023" for us with the team member. https://2023.igem.wiki/nau-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/3f5e4ec0-da87-4f58-8e83-d870cf68f92f/0e2c5666-30d0-402e-9d31-c53fcdd162e9-master.m3u8https://video.igem.org/videos/embed/8PRibbL6c86NqZHHN9YUan54092023-10-11T02:01:17.087ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wPHfrKdDgS9ZAVu96Apkxqhttps://video.igem.org/lazy-static/thumbnails/8ebdd2a2-e76f-40d3-a28f-95b29a2d90f7.jpgTongji-Software: Introduction to CASleuth (2023) [English]Here is the introduciton video to our software, CASleuth. Hope you like our software! Link to our wiki: https://2023.igem.wiki/tongji-software/https://static.igem.org/peertube/streaming-playlists/hls/f99b89a0-c05d-4e5c-8937-affe26a067a2/d644cc47-b55d-4e18-8438-198716af411a-master.m3u8https://video.igem.org/videos/embed/wPHfrKdDgS9ZAVu96Apkxq1680222023-10-11T02:19:48.365ZtongjicasleuthsoftwarechinaYESiGEM 2023 TeamsNOhttps://video.igem.org/w/g3tt9ZQZUfV6Mh7zQmoPRghttps://video.igem.org/lazy-static/thumbnails/f804a4f5-2006-4c29-b4dc-c5f5b97cf165.jpgHKPOLYU: Interview with Dr. Molly Li (2023) [English]This video briefly overviews an interview conducted with Dr. Molly Li, a renowned clinical oncologist. The interview aimed to gain insights into his experiences, expertise, and perspectives on clinical oncology. Dr. Li shared valuable information about his career journey, his challenges, and lung cancer treatment advancements. Additionally, he discussed the importance of patient care, the role of research in improving outcomes, and the future of novel bispecific antibodies. This interview offers a glimpse into the world of NSCLC through the eyes of Dr. Molly Li, providing valuable insights for both professionals and individuals seeking to understand and navigate the field. PolYneer Wiki: https://2023.igem.wiki/hkpolyu/https://static.igem.org/peertube/streaming-playlists/hls/79d17ecc-ee93-4fbf-9e04-b054324812b5/fad16248-2090-4a81-a594-043160607561-master.m3u8https://video.igem.org/videos/embed/g3tt9ZQZUfV6Mh7zQmoPRg57001582023-10-11T02:50:34.179ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5KpXCtcP4yrqmbVvTkzNMXhttps://video.igem.org/lazy-static/thumbnails/6e54cbed-b3cb-4163-a468-cb1b5c7f9b43.jpgStony-Brook: Sustainability (2023) [English]A video of iGEM members with SDGs flashing around themhttps://static.igem.org/peertube/streaming-playlists/hls/26744d55-22c5-4cd9-9740-045b878408d9/9391490f-b519-491f-82be-5d39aa263c65-master.m3u8https://video.igem.org/videos/embed/5KpXCtcP4yrqmbVvTkzNMX13022023-10-11T02:44:29.715ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kZTVFNTRuA3TV4Zc8HduAqhttps://video.igem.org/lazy-static/thumbnails/1378d301-29e3-44ad-97b1-45cd76213841.jpgHUBU-HUBEI-CHINA: Middle School biology research summer camp (2023) [Chinese]https://2023.igem.wiki/hubu-hubei-china/https://static.igem.org/peertube/streaming-playlists/hls/a1f3079c-aa86-4231-8f94-0eea855d7ccc/45ad8c37-1431-4cf7-b7b8-a8361f3d195f-master.m3u8https://video.igem.org/videos/embed/kZTVFNTRuA3TV4Zc8HduAq76012023-10-11T03:02:08.917ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/o8q7M9vN6coD1sXeRMQnxjhttps://video.igem.org/lazy-static/thumbnails/ae55504b-3640-4590-9fe1-7ef77e8c69a3.jpgFZPt-CHINA: Nucleus (2023) [English]The nucleus is the command center of the cell, and most of the genetic material in the nuclear cell is concentrated in the nucleus, and there is a membrane around it. Inside the nucleus is a filamentous substance called a chromosome. When cells divide, the filamentous material becomes cylindrical or rod-shaped. Centrosomes located in the cytoplasm near the nucleus reside in eukaryotic cells all the time. During mitosis, the centrosome helps the copy of the chromosome to be accurately separated into two cells. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/b3321e94-d111-4012-9d6e-6b2d346892bc/2a47070a-890a-41f4-bec1-753854450cda-master.m3u8https://video.igem.org/videos/embed/o8q7M9vN6coD1sXeRMQnxj149002023-10-11T05:35:40.373ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/azER6WKBAj1LJqgD7ej85ihttps://video.igem.org/lazy-static/thumbnails/1e202eb9-a290-410e-b4ac-203d10e6a93c.jpgKyoto: Drinking Bird drinking water from the waterer (2023)We are proposing a device that is a modified version of a commercially available DRINKING BIRD. Here we show that the drinking bird can be watered from a positionally designed waterer, demonstrating that our device can be used for implementation in farmland.https://static.igem.org/peertube/streaming-playlists/hls/4d95bb7f-824b-4339-ab91-21fc043f7015/82e5226a-e052-4aa3-8639-0156f906d98e-master.m3u8https://video.igem.org/videos/embed/azER6WKBAj1LJqgD7ej85i22022023-10-11T05:31:04.264ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/13vtCS37qugnAWpfYVmbhqhttps://video.igem.org/lazy-static/thumbnails/d5baac77-5011-417a-a040-b0e29463db48.jpgKyoto: Drinking bird device full movement (2023)This is a demonstration of the long-term shaking incubation system we have developed using a drinking bird. See more on our wiki: https://2023.igem.wiki/kyoto/https://static.igem.org/peertube/streaming-playlists/hls/0059a72f-2800-4df8-b97f-e08ebfe04090/60e339d6-f380-4fe3-97b6-8528ab0b7a83-master.m3u8https://video.igem.org/videos/embed/13vtCS37qugnAWpfYVmbhq650542023-10-11T05:37:33.647ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/o8mVkH5SQxEaJKCsvc7B6khttps://video.igem.org/lazy-static/thumbnails/8d4cb6fc-e18a-46d6-bf7d-7b5172f72fa9.jpgKyoto: E. coli culture test with Drinking bird device (2023)We conducted a culture experiment using 15-mL tubes with a prototype of the actual device to verify whether the DB vibration could actually culture E. coli. See more on our wiki: https://2023.igem.wiki/kyotohttps://static.igem.org/peertube/streaming-playlists/hls/b330262b-a081-44ad-9567-8170ff183c61/75329199-9719-4873-b9ef-8709990a8f86-master.m3u8https://video.igem.org/videos/embed/o8mVkH5SQxEaJKCsvc7B6k420272023-10-11T05:41:41.831ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9FSh1UKqCbJaxYqXByLZKBhttps://video.igem.org/lazy-static/thumbnails/328c3149-49c0-47ea-9956-d6924feaec04.jpgFZPt-CHINA: Cell Introduction (2023) [English]The cell is the smallest constituent unit in the organism and is an indispensable and vital structural and functional unit. The first person to discover living cells was the Dutch biologist Leeuwenhoek. The cell has the nucleus, the command center, the cytoplasm, which acts as the center of life, and the cell membrane, which acts as defense and separation. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/465a199e-abe3-424e-ba20-b68667841265/764eb4a1-1355-468a-b520-2968fce7171b-master.m3u8https://video.igem.org/videos/embed/9FSh1UKqCbJaxYqXByLZKB110032023-10-11T05:47:09.798ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5yWQB6E3NAqAyQsbK9LRJVhttps://video.igem.org/lazy-static/thumbnails/ce81769b-9df9-484b-9646-05166f25c609.jpgFZPt-CHINA: Mitochondria and Chloroplasts (2023) [English]Mitochondria can morph, they can attack, they can communicate. It's smaller and more numerous than most organelles. Mitochondria in plant and animal cells act as the "power shop" of cellular energy. Chloroplasts are organelles of green plants, and photosynthesis as a source of biomass and energy is carried out in the chloroplasts of plant cells. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/24fe2681-48b0-4b35-a63c-718376a61e5d/362d357c-f0e9-4c12-b31d-88e64f52dca6-master.m3u8https://video.igem.org/videos/embed/5yWQB6E3NAqAyQsbK9LRJV164012023-10-11T06:47:04.257ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eYgiqH7KjHB5c8S13NwUzYhttps://video.igem.org/lazy-static/thumbnails/b5e7a13c-2928-4f26-8c38-892676e6bfa6.jpgShanghaiTech-China: Community Science Outreach Lecture (2023) [Chinese]A crucial mission of Education is to bring the wonders of synthetic biology to the community and generate people’s interest in the field of synthetic biology, the iGEM competition, and our project. We sincerely aim to expand our educational outreach and have chosen the community as our venue, hoping to receive valuable feedback to make adjustments and optimizations to our project in the future.https://static.igem.org/peertube/streaming-playlists/hls/7121e208-1ce1-4135-b32a-586043fb11d2/9cf03c5d-77d7-4e36-bf99-8ce01e6c6ee2-master.m3u8https://video.igem.org/videos/embed/eYgiqH7KjHB5c8S13NwUzY80092023-10-11T07:19:58.919ZinterestinglectureYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6Ha8waXpVGjxTDzLcjWQ71https://video.igem.org/lazy-static/thumbnails/6673e7ca-0490-499f-a8ae-bb3d077bc180.jpgBIT-China: micro-expression-demo (2023) [English]This is a demonstration of our model. For more details, please visit our website. https://2023.igem.wiki/bit-china/model_5https://static.igem.org/peertube/streaming-playlists/hls/2e3cd070-da06-45d7-8864-9b4e3f61620c/1802869d-2cb8-4f8f-95b1-148633b318ff-master.m3u8https://video.igem.org/videos/embed/6Ha8waXpVGjxTDzLcjWQ7149002023-10-11T07:24:49.011ZMicro-ExpressionModelYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xgzKARPSuGp5LiE8FNaGCGhttps://video.igem.org/lazy-static/thumbnails/ebb4d031-eff1-4c30-9467-473a2c7584b5.jpgHKPOLYU: Reels EP : 1 (2023) [English]Are you ready for a mind-blowing revelation? 👀 Non-small cell lung cancer, or NSCLC for short, is a topic that demands our attention! 💥🤯 This condition is a serious challenge that has left many in the dark. 😢Let’s find out more information about it in this reel!💡💡https://static.igem.org/peertube/streaming-playlists/hls/fd384158-b03e-4edb-a5fe-8637d0b15158/ccd2e33e-479f-40fb-89a5-11db65c07ba1-master.m3u8https://video.igem.org/videos/embed/xgzKARPSuGp5LiE8FNaGCG89002023-10-11T07:29:59.982ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/m9y3AFbiD8m2DL5DpPD5u6https://video.igem.org/lazy-static/thumbnails/44945e72-245d-48f1-9592-6641c647d55e.jpgAachen: E-Waste Map Animation (v2) (2023) [English]Animation for Homepage of iGEM Aachen 2023 Wiki (version 2). 2023.igem.wiki/aachen https://static.igem.org/peertube/streaming-playlists/hls/a32878be-f2cc-42d8-92fe-eff46db60d45/3338ee22-4f8c-4cec-b6c3-2649019825c8-master.m3u8https://video.igem.org/videos/embed/m9y3AFbiD8m2DL5DpPD5u633012023-10-11T07:30:32.415ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8V1STHDJZQeg5jHs5xgJynhttps://video.igem.org/lazy-static/thumbnails/ee84cfd4-cf35-4d02-9e57-c704aceb17be.jpgThailand-RIS: TRIS Title animation (2023)Title animation featuring TRIS igem logo in a field of grass with gentle wind. This will be featured on the homepage of the TRIS website. Animation credits: Unyakorn Patrathiranond, wet-lab & design team leader Wiki: https://2023.igem.wiki/thailand-ris/https://static.igem.org/peertube/streaming-playlists/hls/4016ee61-6073-43e6-b29a-57b543f65205/8ed349c1-c637-450b-90f8-74b1ed08af49-master.m3u8https://video.igem.org/videos/embed/8V1STHDJZQeg5jHs5xgJyn15092023-10-11T08:16:44.522ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7iP1dyx1jsEmcVNLovSRhEhttps://video.igem.org/lazy-static/thumbnails/74ba42be-bf19-444c-9406-6e52c322c416.jpgThailand-RIS: 08 ES (2023) [English]Post-workshop interview with the ES students - Special thanks to Ms. Mina and the 4th Grade Teachers for supporting us for the interview! - https://2023.igem.wiki/thailand-ris/https://static.igem.org/peertube/streaming-playlists/hls/33137170-fad9-4a3c-80d8-b122d542830a/b5db631c-baeb-4dc3-9678-a80a5ab7ec21-master.m3u8https://video.igem.org/videos/embed/7iP1dyx1jsEmcVNLovSRhE1290172023-10-11T08:52:19.793ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/86rL5rNJqpAAaGKQGBeHm6https://video.igem.org/lazy-static/thumbnails/fdf81c9a-8151-4bd1-91df-b247000d3da8.jpgOUC-China: Inclined plate settler particle track front (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/39729089-82a8-475d-b6ad-7659696d2709/f0a4bebb-31bd-4178-b3e2-2fded8d21ae0-master.m3u8https://video.igem.org/videos/embed/86rL5rNJqpAAaGKQGBeHm610032023-10-11T08:52:52.467ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/8K2wYp11Hzt2ustyUcSDFbhttps://video.igem.org/lazy-static/thumbnails/6803a7b7-efbe-43a5-a2a2-2aa6ce825c0a.jpgOUC-China: Inclined plate settler velocity contour side (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/3eb1e5e9-89f8-49f3-ad03-04bb00292094/0f48ef36-dc65-4b33-ade5-f05978c01f63-master.m3u8https://video.igem.org/videos/embed/8K2wYp11Hzt2ustyUcSDFb10092023-10-11T08:53:31.578ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/egijLD3fzXLBKyA4rN21YYhttps://video.igem.org/lazy-static/thumbnails/f5bda8cc-3ee4-4275-96e7-3eaecc4eb185.jpgOUC-China: Inclined plate settler velocity contour view (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/6b69a29b-9559-4cdd-9d4b-1aa80e61ee50/1e4d4ef5-412d-4533-b86e-db040667b639-master.m3u8https://video.igem.org/videos/embed/egijLD3fzXLBKyA4rN21YY9052023-10-11T08:54:00.275ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jvB98grB2dwPoZrcDtBEtPhttps://video.igem.org/lazy-static/thumbnails/1317531d-e5f4-4368-bdea-46c6342120dd.jpgOUC-China: Accelerated sinker box trace animation (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/95e6b897-692b-49f1-9906-4c32406a3a2d/0968cbf9-7dfa-4307-a87c-79d94185dcda-master.m3u8https://video.igem.org/videos/embed/jvB98grB2dwPoZrcDtBEtP280222023-10-11T08:58:21.581ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hbAuX6oTcFzc6WqWEQNVpAhttps://video.igem.org/lazy-static/thumbnails/b43c5ecf-9a34-4963-a2b5-c11c905df99e.jpgOUC-China: Inclined plate settling particle track side (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/830ceac7-9218-4a73-951d-8fbbe008c33c/4be633df-c40f-45c0-ad5f-122fbb57ecd2-master.m3u8https://video.igem.org/videos/embed/hbAuX6oTcFzc6WqWEQNVpA22092023-10-11T09:01:21.199ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qd6krouxGLPbAmbUE7NRSahttps://video.igem.org/lazy-static/thumbnails/e6363276-5879-43c7-bd37-34bd4bc6f41d.jpgOUC-China: Inclined plate settler velocity contour side (2023) [English]https://2023.igem.wiki/ouc-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/c40b8a7d-29d3-4187-83b1-a1db3ed0fc91/ee63c822-a968-4631-9102-70d1a319df2e-master.m3u8https://video.igem.org/videos/embed/qd6krouxGLPbAmbUE7NRSa14062023-10-11T09:02:21.628ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wn8aKkv83UXrULcNeoCutBhttps://video.igem.org/lazy-static/thumbnails/661f349a-b83b-4936-8af2-be0dafe6b036.jpgSheffield: Hardware Modelling (2023) [English]Sheffield: Hardware Modelling (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/f5e53249-eaae-4bf6-8dcd-65fd11583f51/c40c6e4f-bd2c-4001-839f-7f967d52ebfd-master.m3u8https://video.igem.org/videos/embed/wn8aKkv83UXrULcNeoCutB20122023-10-11T09:14:47.952ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oTJbwKqM1Uss7dGSDXJPQUhttps://video.igem.org/lazy-static/thumbnails/94d54525-34df-4985-8334-3c06b152f5ef.jpgSheffield: Hardware Modelling Demonstration (2023) [English]Sheffield: Hardware Modelling Demonstration (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/b961fa64-83d0-4fd3-a3c8-2db58d602a50/5ba9e7dc-b55b-4072-9d5f-50b9695b1b62-master.m3u8https://video.igem.org/videos/embed/oTJbwKqM1Uss7dGSDXJPQU140122023-10-11T09:25:05.950ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/i4j9R35ovqis79sdygFt8Chttps://video.igem.org/lazy-static/thumbnails/82248094-0787-4a73-8df9-e79ae04de291.jpgKyoto: Confirmation that the water server is functioning properly (2023)We have confirmed that the water server that will be integrated into our device is functioning properly. See more on our wiki https://2023.igem.wiki/kyotohttps://static.igem.org/peertube/streaming-playlists/hls/8a21c681-4772-4e86-85c4-a80a9909c88e/ae28788f-7cc5-42a4-a0a9-323690c1c12f-master.m3u8https://video.igem.org/videos/embed/i4j9R35ovqis79sdygFt8C100132023-10-11T09:37:10.339ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2QKfNMrFFxj7TqMeF6PCKNhttps://video.igem.org/lazy-static/thumbnails/072bcd71-ccb4-4fc2-92ba-196952d2f0ce.jpgHKPOLYU: Reels EP : 5 (2023) [English]🌟 Conquering Osimertinib resistance in NSCLC! Our project utilizes synthetic biology to develop a novel bispecific antibody. By cyclizing an EGFR binding peptide, we enhance stability, potency, and selectivity. Our low-cost approach aims to overcome resistance and improve treatment outcomes. Join us on this revolutionary journey! 🔬💪https://static.igem.org/peertube/streaming-playlists/hls/0ee77f23-a081-4f0a-8d32-9017a507e4c4/e1715439-fcb0-455f-99d6-8e5a975903db-master.m3u8https://video.igem.org/videos/embed/2QKfNMrFFxj7TqMeF6PCKN104002023-10-11T09:38:59.833ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sbemw2aWwYVAyDyFCXoDcPhttps://video.igem.org/lazy-static/thumbnails/c0a2f13a-f389-4933-9cc5-b74274f7885f.jpgHKPOLYU: Reels EP : 3 (2023) [English]🌟 Bring hope to non-small cell lung cancer! EGFR-TKI is a life-saving drug with miraculous power against non-small cell lung cancer. From the first generation to the third generation, new treatment methods continue to emerge. Osimertinib leads the pack with excellent survival rates, but is it not the most promising option. Stay tuned for more information on the use of novel bispecific antibodies to treat drug resistance.https://static.igem.org/peertube/streaming-playlists/hls/d3fb45bc-1af1-497c-8bb9-f8ff0daa1a01/b5d45180-f7e9-4d62-951d-d7f1623e887e-master.m3u8https://video.igem.org/videos/embed/sbemw2aWwYVAyDyFCXoDcP101002023-10-11T09:39:37.659ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xk6dGe5r2XkUW64q37GAyDhttps://video.igem.org/lazy-static/thumbnails/00b1ee4a-a918-4a0b-962d-1b2dab3a82b0.jpgHKPOLYU: Reels EP : 4 (2023) [English]🌟 Unlocking new hope in NSCLC treatment! Introducing bi-specific antibodies, a game-changer against drug resistance. By targeting both c-MET and EGFR simultaneously, they offer a more effective approach. Challenges remain, but stay tuned for the final act as we unveil the potential of these antibodies. 🎬✨https://static.igem.org/peertube/streaming-playlists/hls/fdb5a575-69a1-49a3-b8b9-41e8edda648d/7dc3e5b2-be1a-4ef9-b989-8cfdb3f64eb0-master.m3u8https://video.igem.org/videos/embed/xk6dGe5r2XkUW64q37GAyD96002023-10-11T09:40:03.768ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pK8tkDdvThzhrK1KvHgemGhttps://video.igem.org/lazy-static/thumbnails/52be5195-932d-469e-a385-a0991a286cb6.jpgHKPOLYU: Reels EP : 2 (2023) [English]✨Join us for an informative reel on EGFR mutation and overexpression in NSCLC.🧬 Let’s discover the specific mutation sites of EGFR mutation and what that means for NSCLC patients. 🫁 Finally, find out how targeting the EGFR pathway may be a promising strategy against NSCLC. 🎯 https://static.igem.org/peertube/streaming-playlists/hls/c047c692-bbfd-44b9-b965-a72600bc0c4c/374c3cda-42cb-4892-8a16-4c5aea9ef5ec-master.m3u8https://video.igem.org/videos/embed/pK8tkDdvThzhrK1KvHgemG83002023-10-11T09:43:22.117ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9RpH7pGyE7jUwHJMkt8scAhttps://video.igem.org/lazy-static/thumbnails/f93cf056-4370-40f3-be3f-9fe100898f8a.jpgKyoto: Drinking Bird drinking water from the waterer (2023)We are proposing a device that is a modified version of a commercially available DRINKING BIRD. Here we show that the drinking bird can be watered from a positionally designed waterer, demonstrating that our device can be used for implementation in farmland. See more on our wiki: https://2023.igem.wiki/kyotohttps://static.igem.org/peertube/streaming-playlists/hls/47af2a42-8de0-44d5-807d-89915bb17230/b072c070-8a34-4d2e-a1d0-a18491f31edc-master.m3u8https://video.igem.org/videos/embed/9RpH7pGyE7jUwHJMkt8scA22052023-10-11T09:52:39.615ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uoKEcDoR4VxE6WQuigjFqHhttps://video.igem.org/lazy-static/thumbnails/ba3af49c-0d1d-4d32-9140-dc34751a10d4.jpgCornell: Alginate Bead Making Process (2023)A video demonstrating Cornell iGEM's automated alginate bead making process using a syringe infusion pump. Video by Rita Kelly. Learn more about our 2023 project ENERGEM at 2023.igem.wiki/cornell!https://static.igem.org/peertube/streaming-playlists/hls/e5ed26a8-8443-4bd7-a7de-a6a10e906f75/367d74c9-a47c-489d-9e57-3fa83214010b-master.m3u8https://video.igem.org/videos/embed/uoKEcDoR4VxE6WQuigjFqH190202023-10-11T10:07:34.811ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jkkLJdyG9irUhvxSmKo4Z4https://video.igem.org/lazy-static/thumbnails/3c7f4277-b96c-458d-a7c5-59b99a3b6e7c.jpgIISER-Pune-India: Animation project design (2023)Animation design for the IISER Pune Project Design page on wiki.https://static.igem.org/peertube/streaming-playlists/hls/9477cfda-6815-4d71-a0d5-0b6c402a38f9/a3c7e3b0-ed38-4cda-ba59-3396ec09b578-master.m3u8https://video.igem.org/videos/embed/jkkLJdyG9irUhvxSmKo4Z412003072023-10-11T10:28:21.686ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xgnPzrkwuTYuo826LBqScvhttps://video.igem.org/lazy-static/thumbnails/c7fd9d6f-d678-4faa-a36c-390d77d7a391.jpgFZPt-CHINA: Flow Type Immobilized Microorganism Wastewater Treatment Device (2023) [English]This video is the real operation video of the Flow type immobilized wastewater treatment device. This video shows the operation principle and process of the Flow type immobilized wastewater treatment device. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/hardware3https://static.igem.org/peertube/streaming-playlists/hls/fd30e6f9-0d5c-431b-adf6-9f7a53e194d3/4eed17d0-6741-49b6-be67-47ae91cb13f0-master.m3u8https://video.igem.org/videos/embed/xgnPzrkwuTYuo826LBqScv410232023-10-11T11:14:05.930ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/htAoKLh7NqBD2WbHx6Hvdthttps://video.igem.org/lazy-static/thumbnails/a3fe2b2d-7cc0-4057-ad84-f913e75a5bea.jpgSZU-China: polycobead-2 (2023) [English]The product!https://static.igem.org/peertube/streaming-playlists/hls/856c7ed0-8fcf-4e9f-a6a7-a8590560953f/a866a7f3-dc1c-458a-a6c0-c65088e841df-master.m3u8https://video.igem.org/videos/embed/htAoKLh7NqBD2WbHx6Hvdt49012023-10-11T11:52:49.930ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/h19MSqWitjzQaXJZjDKXFxhttps://video.igem.org/lazy-static/thumbnails/20fa0524-fe4f-47b8-a804-c3191915999f.jpgNYCU-Formosa: [Education Podcast] EP1. What is iGEM competition? (2023) [English]Hello everyone! We are excited to introduce our NYCU-Formosa podcast series. In this series of podcasts, we will combine our team's project for this year with the knowledge of iGEM synthetic biology and share it with all of you in five episodes. In the first episode, we are fortunate to have invited team members from NTHU-Taiwan. They will share their team's project with us and explore the significance of iGEM in education. In this podcast episode, we will provide a comprehensive introduction to what iGEM is all about. We will also share the collaborative process, the challenges faced by teams during the competition, and the valuable lessons learned. This series aims to provide you with a deeper insight into the iGEM competition and synthetic biology, inspiring your passion for science and education. We look forward to sharing more intriguing content with you in the upcoming episodes. Stay tuned and join us as we delve into the fascinating world of science and education!https://static.igem.org/peertube/streaming-playlists/hls/8197a2d8-7823-4296-8b44-6ad242e42f39/d91d47fe-e63b-4ab5-bb8b-cac682ce1edf-master.m3u8https://video.igem.org/videos/embed/h19MSqWitjzQaXJZjDKXFx746042023-10-11T12:17:35.698ZpodcasteducationYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gQ7T1pPdFuxcoVtf18zh9xhttps://video.igem.org/lazy-static/thumbnails/e8ee7bda-82cf-4131-ac3f-16a5eecea006.jpgGifu: web_automation (2023) [Japanese]We aligned the sequences we obtained and highlighted the recognized sequences in blue. As a result, we were able to narrow down to three candidates for gRNA. At the top of the page, the values for each metric are listed: Target (excluding PAM sequence), Hits (number of sequences that can be recognized), Ratio (Hits divided by the total number of sequences), and Off-Target Rate (number of unintended recognition regions).Our wiki rink(https://2023.igem.wiki/gifu/dry_engineering)https://static.igem.org/peertube/streaming-playlists/hls/8031053c-e942-46c7-8823-bc0da4fc36c7/45a87dd5-9351-43a1-a60f-b7e30dbecf92-master.m3u8https://video.igem.org/videos/embed/gQ7T1pPdFuxcoVtf18zh9x85012023-10-11T12:36:19.592ZgRNA　RNA　sequenceevolutionary information　Off-TargetYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4Kf3bwiKAR9DacPRFwV71Hhttps://video.igem.org/lazy-static/thumbnails/4d56958f-1cf4-4bce-84ba-6c8750dc4864.jpgHKPOLYU: Interview with Dr. Ann Chan (2023) [English]This video briefly overviews an interview conducted with Dr. Ann Chan, a clinical oncologist in Hong Kong hospital. The interview aimed to gain insights into her experiences, expertise, and perspectives on clinical oncology. Dr. Chan shared valuable insights on the challenges faced in real-life cancer cases, the applications of targeted therapy and bispecific antibodies in NSCLC, as well as the advantages and disadvantages of immunotherapy. She also encouraged patients to participate in clinical trials and discussed the potential impacts of bispecific antibody development on cancer treament. PolYneer Wiki: https://2023.igem.wiki/hkpolyu/https://static.igem.org/peertube/streaming-playlists/hls/1e550c90-2d0f-440c-9d2b-6d8b4d57e549/e7c43139-744b-43a7-bb26-775ecc39f8e1-master.m3u8https://video.igem.org/videos/embed/4Kf3bwiKAR9DacPRFwV71H7550442023-10-11T12:55:07.105ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uhZ1ddQgxCapz2nwWeq2yYhttps://video.igem.org/lazy-static/thumbnails/ffb5041e-1b63-4101-9eaf-d5d9be99283e.jpgHKPOLYU: [Mandarin]EP：6 肺癌治療的新領域 (2023) [Chinese]本集節目我們很榮幸邀請到莫樹錦教授。 莫教授是肺癌生物標記和分子標靶治療領域的專家。 在訪談中，莫教授將與我們分享他對雙特異性抗體在肺癌治療中的專業知識，以及如何維持新藥的安全性和有效性。 所以，不要錯過這個可以獲取專業知識的機會！ 旁白：陳子豪 李苠熙 楊惠梓 編輯：李超穎 翻譯：李旻琋 楊惠梓 葉律怡 剪接：李超穎https://static.igem.org/peertube/streaming-playlists/hls/e51ee99c-010c-432d-b98d-3543e704f8ec/618e491b-0127-4ec4-9944-6c94657911be-master.m3u8https://video.igem.org/videos/embed/uhZ1ddQgxCapz2nwWeq2yY539002023-10-11T13:55:26.046ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mf4fb3UAhP8PjLCnuqdqvNhttps://video.igem.org/lazy-static/thumbnails/a466381b-14cb-4d1e-b36e-1b026397f457.jpgMSP-Maastricht: SRAL Interview (2023) [English]We conducted an interview with Kate Seymour, art historian and Head of Education at the Stichting Restauratie Atelier Limburg (SRAL). In the interview we discussed current restoration methods and the potential our project holds within the field of restoration.https://static.igem.org/peertube/streaming-playlists/hls/a3ed2f75-d7f1-4f7a-a002-fdecd04c1440/4dbc8d96-6fbe-4cdb-b50e-95537197fea8-master.m3u8https://video.igem.org/videos/embed/mf4fb3UAhP8PjLCnuqdqvN659092023-10-11T14:42:41.982ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rEPwQpomtST7Hf8jKnqLiXhttps://video.igem.org/lazy-static/thumbnails/0f21a8bf-d74f-4bf3-8ab7-49bbefd2f080.jpgHKPOLYU: [Cantonese]EP：5 如何診斷肺癌 (2023) [Chinese]在這一集我們有幸訪問臨床腫瘤學家陳心妍醫生，和我們分享如何診斷肺癌，臨床實驗和肺癌的最好治療方案。陳醫生將分享她面對過的癌症真實個案， 還有肺癌的一些標靶療法。 旁白：李旻琋 周子晴 編輯：王澤森 翻譯：李超穎 剪接：李超穎https://static.igem.org/peertube/streaming-playlists/hls/cfe005ac-c461-40ce-a773-6af67f787031/2a1964cc-225d-4544-a125-c69f13811335-master.m3u8https://video.igem.org/videos/embed/rEPwQpomtST7Hf8jKnqLiX1049022023-10-11T14:07:30.415ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5Rv4E7aJTgk6RvhYUeWiMGhttps://video.igem.org/lazy-static/thumbnails/9ca51712-d302-40ac-a9e1-cef91b44ac8c.jpgPLKNPLC-HK: 1b80 VMD video (2023)VMD video of 1b80 LIGNIN PEROXIDASEhttps://static.igem.org/peertube/streaming-playlists/hls/274de8fd-19e1-4426-8726-4d7f9ec5f57e/c4f6a54c-5c82-4915-b537-6b4aeba3b6f0-master.m3u8https://video.igem.org/videos/embed/5Rv4E7aJTgk6RvhYUeWiMG89002023-10-11T13:57:00.144ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2RRDzjHPbDXV1TFXbtMcu5https://video.igem.org/lazy-static/thumbnails/6a77d333-56c5-4c85-bef7-764eeb2b4532.jpgBNDS-China: backvideo (2023) [English]BNDS-China: backvideo (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/0f0f2e11-a0cd-4205-8de4-e26082038920/c734af2b-176c-4e5b-a258-1ed36c1cbd28-master.m3u8https://video.igem.org/videos/embed/2RRDzjHPbDXV1TFXbtMcu511032023-10-11T13:57:08.596ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/binCZZBVDh7aNjBAQrFoXvhttps://video.igem.org/lazy-static/thumbnails/b1943d93-07b7-4c37-b97e-ee2766fbf32e.jpgHKPOLYU: [Cantonese] EP：3 檢測非小細胞肺癌的早期症狀並採取行動 (2023) [Chinese]在這一集中，主持人將討論非小細胞肺癌（NSCLC）的診斷和早期檢測，這是最常見的肺癌類型。他們將談論NSCLC的症狀，定期檢查的重要性以及可用的治療選擇。本集強調了早期發現NSCLC的重要性，以提高成功治療的機會。 旁白：李旻琋 周子晴 編輯：王澤森 周子晴 翻譯：李超穎 李旻琋 周子晴 剪接：李超穎 https://static.igem.org/peertube/streaming-playlists/hls/53685d93-dd4e-4beb-aebf-0c988a0c7453/23433a70-6b90-4597-b12c-d4b201dcbd53-master.m3u8https://video.igem.org/videos/embed/binCZZBVDh7aNjBAQrFoXv176002023-10-11T14:09:35.339ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rsRQybdhSG4YLPqvScq1RThttps://video.igem.org/lazy-static/thumbnails/29c97ee0-c7be-4f65-906f-78c32dc7c8ff.jpgPLKNPLC-HK: 1KYA VMD video (2023)VMD video of 1KYA laccase proteinhttps://static.igem.org/peertube/streaming-playlists/hls/ce34848b-9cab-42ff-847f-8b8979a3583d/535771da-9bd1-4387-ab16-77311e9cfa52-master.m3u8https://video.igem.org/videos/embed/rsRQybdhSG4YLPqvScq1RT90032023-10-11T14:06:21.443ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tURMfxwbfUi5DCmDV6RSKohttps://video.igem.org/lazy-static/thumbnails/0cbe51f4-7e49-4d37-9a1a-73f3d126d81d.jpgHKPOLYU: [Cantonese] EP1: 甚麼是非小細胞肺癌？ (2023) [Chinese]本期節目將為大家介紹一種悄無聲息嘅疾病。想揭開呢種疾病嘅面紗？一齊黎聽下我地嘅分享啦！ 旁白：李旻琋 周子晴 編輯：王澤森 周子晴 翻譯：李超穎 李旻琋 周子晴 剪接：李超穎 https://static.igem.org/peertube/streaming-playlists/hls/e2081915-cd56-4cad-9b8d-aa994621cf34/8c775736-3bc4-4132-a2b4-1da9fba55d83-master.m3u8https://video.igem.org/videos/embed/tURMfxwbfUi5DCmDV6RSKo319002023-10-11T14:12:07.157ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qTmQoXr3BFuXvav2556rT8https://video.igem.org/lazy-static/thumbnails/727a71ce-c021-45b9-ad6d-bb9e0cc11055.jpgPLKNPLC-HK: 2boq VMD video (2023)VMD video of 2boq Pleurotus eryngii Versatile Peroxidasehttps://static.igem.org/peertube/streaming-playlists/hls/c987198a-9ab4-4b5d-bd34-16cc57c59f61/e470c34e-2864-442d-87d5-309e8298f8af-master.m3u8https://video.igem.org/videos/embed/qTmQoXr3BFuXvav2556rT883092023-10-11T14:06:35.504ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/d31DajjNh9N1Kyx6E1KaCGhttps://video.igem.org/lazy-static/thumbnails/c37bcb4e-9966-4a20-9a19-aa1bb9aab825.jpgPLKNPLC-HK: 3m5q VMD video (2023)VMD video of 3m5q manganese-bound manganese peroxidasehttps://static.igem.org/peertube/streaming-playlists/hls/61758bda-ad12-407a-8d88-f35974eeabcc/6b966490-ffe0-40ed-b51d-25045e2dd5dc-master.m3u8https://video.igem.org/videos/embed/d31DajjNh9N1Kyx6E1KaCG139032023-10-11T14:08:12.313ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5QCbjUt8pnGeUxjQEsMKZThttps://video.igem.org/lazy-static/thumbnails/fb1d4444-4ae7-40dc-b901-24b453c9ede1.jpgPLKNPLC-HK: TvLiP VMD video (2023)VMD video of TvLiP Trametes villosa Lignin Peroxidasehttps://static.igem.org/peertube/streaming-playlists/hls/272e8d15-3bda-426b-bf42-da437c63b891/1b1a7b8d-c6f3-482b-b936-19094dd64718-master.m3u8https://video.igem.org/videos/embed/5QCbjUt8pnGeUxjQEsMKZT92022023-10-11T14:10:21.586ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/vbizfSFxYygWGQZhPzVnkhhttps://video.igem.org/lazy-static/thumbnails/a8fdf6b6-6b52-4c86-b396-3799e5b47655.jpgHKPOLYU: [Mandarin] EP4 : 探索非小細胞肺癌治療的有效性和影響 (2023) [Chinese]在這一集我們有幸訪問李兆澄博士，和我們探討及普及非小細胞肺癌的抗藥性的治療方式。本集內容將會深入探討不同的治療方式，以及有效性和局限性。 旁白：陳子豪 李苠熙 編輯：Hasin Ishraq 翻譯：李超穎 陳子豪 李苠熙 剪接：李超穎https://static.igem.org/peertube/streaming-playlists/hls/ec4949f0-6235-458f-b982-3b07f73fd48a/b7d7a23d-c71c-4763-a46f-6e1de6da94ef-master.m3u8https://video.igem.org/videos/embed/vbizfSFxYygWGQZhPzVnkh574032023-10-11T14:15:28.292ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gswDzWdYMYYoBjJ93udbJxhttps://video.igem.org/lazy-static/thumbnails/7c3a8c23-c23a-4eb0-b149-8a29b42637a7.jpgHainanU-China: CCiC team video (2023) [Chinese]As the organizer of the 10th CCiC, our team designed the "Summer Treasure Hunt" to meet the needs of the participating teams, combined with the entertainment aesthetics and game preferences of contemporary young people, with the goal of promoting synthetic biology, promoting team communication, and connecting intimate bonds. "game. Among them, we draw on the traditional treasure hunt game model, strive to innovate the theme, make the cards ourselves, and give full play to the advantages of the entire HP and art team, hoping to create a game that is suitable for synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/7d2d4e30-d207-455e-a62e-e2e987c042eb/ead0e79b-247b-43dc-bc78-9905ed6a2b2f-master.m3u8https://video.igem.org/videos/embed/gswDzWdYMYYoBjJ93udbJx1870102023-10-11T14:33:03.421ZHainaniGemCCiCYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7upv9sd96KYAudEgi5FgUshttps://video.igem.org/lazy-static/thumbnails/27c4d8ca-1930-48a6-a8aa-8d38b272a755.jpgHKPOLYU: Interview with Prof. Tony Mok (2023) [English]In this episode we are honored to invite Professor Mok Shu Kam,Tony. Professor Mok is an expert in lung cancer biomarkers and molecular target therapies. During the interview, Prof. Mok will share with us his expert knowledge on bispecific antibodies in lung cancer treatment, and how to maintain the safety and efficacy of new drugs. So don't miss this opportunity to gain expert knowledge from this episode!https://static.igem.org/peertube/streaming-playlists/hls/348e2436-94ef-4f06-9e04-1f9088caf9b6/9f5fe262-4b28-429c-bb88-c9ab355952fa-master.m3u8https://video.igem.org/videos/embed/7upv9sd96KYAudEgi5FgUs5190292023-10-11T14:43:35.676ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1YHDLAZi9qiFjr2HXxq6WLhttps://video.igem.org/lazy-static/thumbnails/a1d596d0-51e5-4ddb-856f-0addc3d77ecb.jpgMSP-Maastricht: Spinning DNA-origami Octahedron (2023) [English]This is a model of a single DNA-origami octahedron, that when combined will form a lattice.https://static.igem.org/peertube/streaming-playlists/hls/07eb51cf-dac4-40fa-9cd2-194fce6137ec/a4d3bc04-6f73-4da1-b95a-3575bb93befa-master.m3u8https://video.igem.org/videos/embed/1YHDLAZi9qiFjr2HXxq6WL70572023-10-11T15:12:48.679ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/k2JtucCGB6DHm1vRnYobB6https://video.igem.org/lazy-static/thumbnails/4f5ad5ec-6d99-4eb9-8ed3-8de567d37be3.jpgTongji-China: unpurified (2023)results in wikis for https://2023.igem.wiki/tongji-china/resultshttps://static.igem.org/peertube/streaming-playlists/hls/9a1b8dc4-956a-4911-a1f9-dc5a73f2b32b/75ae2b03-1ed2-4bcf-8d8c-2c9c09dc6282-master.m3u8https://video.igem.org/videos/embed/k2JtucCGB6DHm1vRnYobB622032023-10-11T15:04:27.611ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5AumsERBTHDxKYXEr28fkyhttps://video.igem.org/lazy-static/thumbnails/e520f602-a434-4988-ad51-351bb5852009.jpgNYCU-Formosa: [Education Podcast] EP3. The issue of heavy metal pollution. feat. Aachen (2023) [E...Hello everyone! We are excited to introduce our NYCU-Formosa podcast series. In this series of podcasts, we will combine our team's project for this year with the knowledge of iGEM synthetic biology and share it with all of you in four episodes. In the third episode, we are fortunate to have invited team members from Aachen. First, Aachen will share their team's project, the challenges faced by teams during the competition, and the valuable lessons learned. Then, we will provide a comprehensive introduction to the issue of heavy metal pollution, discussing the problems nowadays and sharing some ways people try to do now. Finally, we will talk about team Aachen’s vision for the project and its future outcomes. This series aims to provide you with a deeper insight into the heavy metal issue and synthetic biology, inspiring your passion for science and education. We look forward to sharing more intriguing content with you in the upcoming episodes. Stay tuned and join us as we delve into the fascinating world of science and education! https://static.igem.org/peertube/streaming-playlists/hls/253550da-0044-499e-9953-f321be79d62e/bd845390-0b5b-4485-8fbd-5b769e607b25-master.m3u8https://video.igem.org/videos/embed/5AumsERBTHDxKYXEr28fky641042023-10-11T15:19:29.574ZpodcasteducationYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9ucyozecNZ2d1VoQVXwz8hhttps://video.igem.org/lazy-static/thumbnails/637f0b3f-10fc-4897-a360-d1d99ee3a7d4.jpgNYCU-Formosa: [Education Podcast] EP2. What is bioremediation? feat. CSMU-Taiwan (2023) [English]Hello everyone! We are excited to introduce our NYCU-Formosa podcast series. In this series of podcasts, we will combine our team's project for this year with the knowledge of iGEM synthetic biology and share it with all of you in four episodes. In the second episode, we are fortunate to have invited team members from CSMU-Taiwan. At first, we will provide a comprehensive introduction to what bioremediation is all about, discussing about the problems nowadays and sharing some ways that people try to do now. Then, CSMU-Taiwan will share their team's project, the challenges faced by teams during the competition, and the valuable lessons learned. This series aims to provide you with a deeper insight into the issue of bioremediation and synthetic biology, inspiring your passion for science and education. We look forward to sharing more intriguing content with you in the upcoming episodes. Stay tuned and join us as we delve into the fascinating world of science and education! https://static.igem.org/peertube/streaming-playlists/hls/44b90ed7-a76a-4810-878c-893496d5dc8a/94f6906f-8681-4300-951c-9deda54a927b-master.m3u8https://video.igem.org/videos/embed/9ucyozecNZ2d1VoQVXwz8h306042023-10-11T15:20:35.934ZpodcasteducationYESiGEM 2023 TeamsNOhttps://video.igem.org/w/t8b6Gnci86dbMijoMKP6oxhttps://video.igem.org/lazy-static/thumbnails/40bbfb9c-181c-4c63-bb33-2be748196e45.jpgTongji-China: 3835bfaab9df7fca5de6c90be6c0c8a4purified (2023)results in wiki for https://2023.igem.wiki/tongji-china/resultshttps://static.igem.org/peertube/streaming-playlists/hls/dba72c67-3e05-4b55-a839-b7930adad477/7be3b803-163e-4d7d-9ab4-b76ac906b5ed-master.m3u8https://video.igem.org/videos/embed/t8b6Gnci86dbMijoMKP6ox36042023-10-11T15:57:11.492ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sY6TtNFJi2BoZ9ZKfwXWzjhttps://video.igem.org/lazy-static/thumbnails/3a3f8dbd-d022-47f9-8fd3-2721d5478340.jpgTongji-China: 899dc2fae488b25d9ee34bbd2ea346b2 Nacl (2023)results in wiki for https://2023.igem.wiki/tongji-china/resultshttps://static.igem.org/peertube/streaming-playlists/hls/da62e276-ed9a-4bcc-b18e-525d285f979c/96705baf-4cd3-48c2-81f0-f0a4c46b2dc6-master.m3u8https://video.igem.org/videos/embed/sY6TtNFJi2BoZ9ZKfwXWzj18042023-10-11T15:57:55.737ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9iAdckXkhcBig1fqGQevw8https://video.igem.org/lazy-static/thumbnails/3fa311c9-30bf-4834-b27c-f13c0b02cd98.jpgTongji-China: 3a9a42a40150de539c39facdf818ac8eBSA (2023)results in wiki for https://2023.igem.wiki/tongji-china/resultshttps://static.igem.org/peertube/streaming-playlists/hls/433dd611-037c-4c64-81ec-fb03c7a266ef/97ea4b18-e30c-4ab0-9de5-90d318254661-master.m3u8https://video.igem.org/videos/embed/9iAdckXkhcBig1fqGQevw820022023-10-11T16:04:46.746ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dzdWsmkirAJxrZM7S9dCMphttps://video.igem.org/lazy-static/thumbnails/e030e213-a12f-427b-b6f2-466dc8669675.jpgSHSBNU-China: Fiber Spinning Test. (2023)SHSBNU-China: Fiber Spinning Test. (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/65d12ea4-068d-4377-8758-43abee800bf9/2cb06aaa-55bb-4b09-8dd2-e4833e754655-master.m3u8https://video.igem.org/videos/embed/dzdWsmkirAJxrZM7S9dCMp110132023-10-11T16:37:45.648ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/a3bnjKDwKANdxYd9mXoKu4https://video.igem.org/lazy-static/thumbnails/0f62a82b-8301-495c-bd12-224352348f1a.jpgSHSBNU-China: Electric Injector Test (2023)SHSBNU-China: Electric Injector Test (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/49301ff0-be13-400e-aa32-28b9304627c7/3255d0e3-64eb-4e3c-81a7-7c6cfe2b1751-master.m3u8https://video.igem.org/videos/embed/a3bnjKDwKANdxYd9mXoKu4180142023-10-11T16:43:10.023ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5QXxZM6UyKtbnPk1DPoc3Lhttps://video.igem.org/lazy-static/thumbnails/dd15ade8-36eb-413b-a6e9-fd55aac619c3.jpgNMU-China: Mendelian Randomization (2023) [English]It introduces the Mendelian randomization model in the modeling work of NMU_China_2023. It will be put on https://2023.igem.wiki/nmu-china/modelhttps://static.igem.org/peertube/streaming-playlists/hls/273a7d93-15ef-4586-8adb-33678ac49f2c/16199f50-c239-4909-a59e-0fc18ff9d73e-master.m3u8https://video.igem.org/videos/embed/5QXxZM6UyKtbnPk1DPoc3L1940362023-10-11T16:50:37.598ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1KGLhAFpK9hh83VDt8vutJhttps://video.igem.org/lazy-static/thumbnails/1de5c78e-4666-495e-8b06-dc0e9e918aeb.jpgSZU-China: polycobead-3 (2023) [English]The product!https://static.igem.org/peertube/streaming-playlists/hls/061a1a81-cda3-42aa-997d-90516ee0fbd0/e64027f2-0a52-4a9c-9626-ba46a8e08937-master.m3u8https://video.igem.org/videos/embed/1KGLhAFpK9hh83VDt8vutJ640722023-10-11T16:57:44.453ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/k83kEyLpX71997kg9fHuQvhttps://video.igem.org/lazy-static/thumbnails/04ab3473-346e-4830-928c-a3bfbb5f0a4b.jpgSHSBNU-China: Heart Valve Fast Flow (2023)SHSBNU-China: Heart Valve Fast Flow (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/9ad9484c-b932-4b34-ae16-ac12a5b9ca75/eee361f3-f36e-4e10-8a45-e81562b4927b-master.m3u8https://video.igem.org/videos/embed/k83kEyLpX71997kg9fHuQv15092023-10-11T17:22:23.564ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/9p1CTS1oKNxhGxaZUWqJbDhttps://video.igem.org/lazy-static/thumbnails/07b7b874-bf17-4d4e-8534-4ad5e4d8772f.jpgSHSBNU-China: Heart Valve Slow Flow (2023)SHSBNU-China: Heart Valve Fast Flow (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/43ff9ba6-2e0d-457e-9464-8b2769ea6db1/178bae78-0c77-44e7-94bf-67f3ec472afa-master.m3u8https://video.igem.org/videos/embed/9p1CTS1oKNxhGxaZUWqJbD510122023-10-11T17:26:01.366ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3BQRDkXdYPd5Josa5Nmzgmhttps://video.igem.org/lazy-static/thumbnails/36db8c1b-8423-41a1-941c-cf985c08b14c.jpgThrace: collab (2023) [English]iGEM is... https://2023.igem.wiki/thrace/https://static.igem.org/peertube/streaming-playlists/hls/15336af5-51de-41fd-bada-5596c73492de/fcc54d4f-12b5-4e3b-8368-900636513207-master.m3u8https://video.igem.org/videos/embed/3BQRDkXdYPd5Josa5Nmzgm1010192023-10-11T18:04:16.323ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/iKxvNt8xPuKwnxSouaC977https://video.igem.org/lazy-static/thumbnails/60beda34-e261-4a3d-b3ce-7420e143a9e4.jpgNavarraBG: Grand Jamboree (2022) [Spanish]Our tribute to iGEM Community. The Grand Jamboree 2022.https://static.igem.org/peertube/streaming-playlists/hls/8fbfc2aa-0cf1-4943-bde8-f331d894f2b2/e40070aa-d459-4a33-946d-48d5e2d956b5-master.m3u8https://video.igem.org/videos/embed/iKxvNt8xPuKwnxSouaC9778335232023-10-11T18:27:57.969ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sapXm2JP7UTSnpJsKgNCFYhttps://video.igem.org/lazy-static/thumbnails/89b615c8-60bd-4111-8296-4e7d68c678ea.jpgFZPt-CHINA: The Importance of Microalgae，Primary Producers (2023) [English]The importance of microalgae.This video focuses on what is microalgae and the role of microalgae, and further explains the mechanism of the primary producer and how to better use microalgae and give full play to its advantages. WIKI link: https://fzpt-china-2023-755bb8761b76786880ba6bbbb2e043b904fcf7b872f5045.igem.wiki/educationhttps://static.igem.org/peertube/streaming-playlists/hls/d3de0fb8-77ef-48e2-8f55-9ec8afc10f9e/2f51a5d2-3085-443d-9b91-0055f839dd74-master.m3u8https://video.igem.org/videos/embed/sapXm2JP7UTSnpJsKgNCFY445052023-10-11T18:45:03.347ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eg2j9rsvxoTuQaSo6kSwWjhttps://video.igem.org/lazy-static/thumbnails/ba9dbf93-1e63-4e67-8192-2177c69810cd.jpgHongKong-JSS: ADAM model video (2023) [English]HongKong-JSS: ADAM model video (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/6b5fc4a9-0d43-45ab-8d4a-7757004a5e26/80af447f-98b7-4bc3-bb07-0f0d8f6098da-master.m3u8https://video.igem.org/videos/embed/eg2j9rsvxoTuQaSo6kSwWj380762023-10-11T18:44:20.610ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fPpTAn3H8m8Kz44F82pNcmhttps://video.igem.org/lazy-static/thumbnails/5dbed942-2dc8-4caa-9478-2ef5741618a6.jpgHongKong-JSS: HxlR-dTomato formaldehyde detection constructtion construct (2023) [English]HongKong-JSS: HxlR-dTomato formaldehyde detection constructtion construct (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/77fe9ef1-861b-41bf-ad92-b1b11ed8f152/710f9c68-2d31-4764-a7b8-ddd46194df1c-master.m3u8https://video.igem.org/videos/embed/fPpTAn3H8m8Kz44F82pNcm16042023-10-11T19:05:24.389ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mQhv7kwUVsURmcGKrden2vhttps://video.igem.org/lazy-static/thumbnails/1f97826a-48bf-4f1b-825d-52b972262eb2.jpgHongKong-JSS: pFrmR-dTomato formaldehyde detection construct (2023) [English]HongKong-JSS: pFrmR-dTomato formaldehyde detection construct (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/a8b4a4d0-881e-461f-b61e-9581eaa4e973/ee5a816d-4b36-4e27-883a-b2aa8aa7aca4-master.m3u8https://video.igem.org/videos/embed/mQhv7kwUVsURmcGKrden2v13062023-10-11T19:07:01.698ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/scuLV1X7Gn2iNSQXNS4CaWhttps://video.igem.org/lazy-static/thumbnails/86011e0d-248e-4edd-9bb9-16275978bf5f.jpgFSU: SBOL Visual in BioRender Tutorial (2023) [English]FSU: SBOL Visual in BioRender Tutorial (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/d42884fc-1b1a-4d82-b541-abab13bf2368/5985ee8a-9ec0-4b2a-9e21-78b20abd1dc1-master.m3u8https://video.igem.org/videos/embed/scuLV1X7Gn2iNSQXNS4CaW5430492023-10-11T19:31:49.623ZCADcomputer aided designsbol visualsbolYESiGEM 2023 TeamsNOhttps://video.igem.org/w/75VeEUShHSykHnXhop4tPThttps://video.igem.org/lazy-static/thumbnails/057256a8-dccd-49d6-a32c-1e9a5fb5d7bb.jpgDUT-China: hardware_video_new (2023) [English]a new video to explain our hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/31469d5d-8e44-4dc7-badf-58d649b934cd/9336e4ae-fc52-4338-87d6-654881aa09ce-master.m3u8https://video.igem.org/videos/embed/75VeEUShHSykHnXhop4tPT1600262023-10-11T19:34:08.462ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6Y5cgaCW3DtxCuGBREhR62https://video.igem.org/lazy-static/thumbnails/9b93c9d2-382a-4666-bf40-372f11127a8a.jpgWVHS-SanDiego: What is PET plastic? (2023) [English]This video talks about what PET plastics are. The video discusses where PET plastics are found, why PET plastic is harmful, and our solution to the problem of PET plastics in our oceans. The sources we used includes https://www.nationalgeographic.com/travel/article/top-activities-things-to-do-93 , https://lajolla.com/article/la-jolla-cove-things-you-didnt-know/ , https://www.sandiego.org/explore/things-to-do/beaches-bays/del-mar.aspx , https://www.sandiegouniontribune.com/communities/san-diego/story/2021-07-21/plastic-waste-makes-up-more-than-90-percent-of-beach-trashhttps://static.igem.org/peertube/streaming-playlists/hls/3051eddd-c2d5-46b1-8ee9-818faddae247/5de0a973-54a2-421b-94a2-2ea974698b01-master.m3u8https://video.igem.org/videos/embed/6Y5cgaCW3DtxCuGBREhR6280042023-10-11T19:44:50.801ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kUSrc2ZVdtT6qZ9xDUdr6Vhttps://video.igem.org/lazy-static/thumbnails/e1d4d18d-bd15-4039-81b9-ae1ef19af076.jpgPatras-Med: 2_National DNA Day (2023) [English]National DNA day collaborationhttps://static.igem.org/peertube/streaming-playlists/hls/a13f644f-014b-4380-bbdd-8b13e24a45db/a1dea32b-7c72-4670-85a3-8e6390e53033-master.m3u8https://video.igem.org/videos/embed/kUSrc2ZVdtT6qZ9xDUdr6V237012023-10-11T20:09:59.165ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ecx9MMpJu2THHcoGRNxPsfhttps://video.igem.org/lazy-static/thumbnails/10825f34-7d6a-4f9e-a154-5749b8d2b9a5.jpgHainanU-China: turtle soup puzzle game (2023) [Chinese]We have sought out biological riddles in the form of a turtle soup puzzle game. By using deductive reasoning, gamers can decrypt the puzzles and, in the process, gain a deeper understanding of biological knowledge. We aim to popularize scientific knowledge through the medium of games, making learning enjoyable and instilling a sense of fun in science. We firmly believe that science should not be perceived as a static and dull endeavor; it should be an enjoyable and engaging pursuit.https://static.igem.org/peertube/streaming-playlists/hls/6ae32e8e-f640-457b-bdeb-70386ed1f8e6/57a2c39c-b0bc-4135-99a1-5ae60e0033e4-master.m3u8https://video.igem.org/videos/embed/ecx9MMpJu2THHcoGRNxPsf720292023-10-11T20:15:56.050Zgamepuzzle YESiGEM 2023 TeamsNOhttps://video.igem.org/w/v44r4BM6G3YM1r858kEiLFhttps://video.igem.org/lazy-static/thumbnails/6cadb836-62bb-4394-9fc7-a6b31acb35da.jpgPennState: home page video resized (2023)this video will be embed in our wiki home page. https://2023.igem.wiki/pennstate/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/eb465e18-91eb-4043-a0b5-13442354ca83/5976da9f-3aa9-469a-903f-bce955ad6303-master.m3u8https://video.igem.org/videos/embed/v44r4BM6G3YM1r858kEiLF2803052023-10-11T21:01:59.850ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/itxYUwHYFnWRB35YSCcKwQhttps://video.igem.org/lazy-static/thumbnails/16006464-d33b-46b0-bc93-5579fe991b14.jpgThinker-Shenzhen: Hardware-First-Generation (2023) [English]Thinker-Shenzhen: Hardware-First-Generation (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/8d8425e8-c44c-4236-948b-d46ce557c740/d267f1ef-964e-4499-915f-5369f8feb41e-master.m3u8https://video.igem.org/videos/embed/itxYUwHYFnWRB35YSCcKwQ150052023-10-11T21:44:20.660ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nc5ACwti5WDrB1bzWF4wB4https://video.igem.org/lazy-static/thumbnails/9cbef0ba-c83e-4f29-b793-4c2e0ba27ae0.jpgThinker-Shenzhen: Hardware (2023) [English]Thinker-Shenzhen: Hardware (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/ab9bed26-aeba-4167-a111-7a4df8abdf11/bb875a1a-1e77-439b-ba27-406e9248c5cb-master.m3u8https://video.igem.org/videos/embed/nc5ACwti5WDrB1bzWF4wB487042023-10-11T21:45:18.818ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oy8VHANpvGQj6CSSLfpB1Shttps://video.igem.org/lazy-static/thumbnails/d4cf3cee-df54-4397-bdd1-3a583029f351.jpgEvry-Paris-Saclay: DiffusionMixing (2023)Diffusion-based mixinghttps://static.igem.org/peertube/streaming-playlists/hls/b6a5bc5f-4a1c-4fc8-97ef-c86106282796/db54240b-0556-47c9-b3e8-adff2df232c7-master.m3u8https://video.igem.org/videos/embed/oy8VHANpvGQj6CSSLfpB1S13012023-10-11T21:49:44.571ZCFDYESiGEM 2023 TeamsNOhttps://video.igem.org/w/e4Jf7VwMEu4MgQt2hHW577https://video.igem.org/lazy-static/thumbnails/fa619744-6828-4a56-b5c8-52f311e33c3a.jpgEvry-Paris-Saclay: BackAndForth (2023)Back and forth droplet mixinghttps://static.igem.org/peertube/streaming-playlists/hls/69cc113c-bd3c-4787-81e1-0332ef478fb2/160393ff-81f6-4071-a553-d8a5a3e713ed-master.m3u8https://video.igem.org/videos/embed/e4Jf7VwMEu4MgQt2hHW57712032023-10-11T22:04:12.340ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kdcEL656AXHJFzL5tpwbZ5https://video.igem.org/lazy-static/thumbnails/db6bb3b5-783d-449a-a86b-41e20989e8b5.jpgKyoto: The actual movement of the DB (2023)We tested to see the actual movement of the DB(Drinking Bird). Our modeling team supports this. See more on our wiki: https://2023.igem.wiki/kyotohttps://static.igem.org/peertube/streaming-playlists/hls/9b91c028-15c0-4314-9fe2-7b709a779356/90351f56-5b6c-419c-94bd-27771c178dc9-master.m3u8https://video.igem.org/videos/embed/kdcEL656AXHJFzL5tpwbZ5430622023-10-11T22:18:04.824ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sq54UtzhpvaWMGySbD4qaNhttps://video.igem.org/lazy-static/thumbnails/7fec9092-4b2c-4606-8793-8750d8695d02.jpgNYCU-Formosa: [Education Podcast] EP4. NYCU-Formosa -- CoPlat (2023) [English]Hello everyone! We are excited to introduce our NYCU-Formosa podcast series. In this series of podcasts, we will combine our team's project for this year with the knowledge of iGEM synthetic biology and share it with all of you in four episodes. In the fourth and also the last episode, we will introduce ourselves and our project – CoPlat. First, Our team members will share our project’s goal and the process of discussion of our project. After that they will talk about the challenges during the competition, and the valuable lessons learned. Then, they will talk more details about CoPlay. Finally, we will talk about our vision for the project and its future outcomes. This series aims to provide you with a deeper insight into CoPlat and synthetic biology, inspiring your passion for science and education. Thanks a lot to those who listen to the whole series about our education podcast. https://static.igem.org/peertube/streaming-playlists/hls/d5e9f653-d5e2-4b78-90ac-69224fdf5a20/301e4974-3792-4c67-82d7-1932dd667bbe-master.m3u8https://video.igem.org/videos/embed/sq54UtzhpvaWMGySbD4qaN745002023-10-11T22:51:07.727ZpodcasteducationYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dVY5yNSsnBtC4aDViHBJ5Yhttps://video.igem.org/lazy-static/thumbnails/3bf06390-7c4c-46c7-ac5d-358d49c5e993.jpgWageningenUR: PseuPomonaKit (2023) [English]WageningenUR: PseuPomonaKit (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/68b6a4ba-4fe1-4c42-9f72-98c7f5376270/4ea75189-60e2-4a0f-8adf-70fc761d014e-master.m3u8https://video.igem.org/videos/embed/dVY5yNSsnBtC4aDViHBJ5Y2810382023-10-11T23:02:51.762ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/efuRJDM1nXRyxQWhyXyR4xhttps://video.igem.org/lazy-static/thumbnails/81dacc8c-6445-4e93-a619-de1c5c0dd6da.jpgSCAU-China: Demo of Press Bait Dispensing Device (2023) [English]This is demo of press bait dispensing device.For more information, please visit our wiki. https://2023.igem.wiki/scau-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6b4cffda-a540-4f1f-8f0a-777c5b803521/667469c5-6ada-446d-b0bc-fa113c2542c9-master.m3u8https://video.igem.org/videos/embed/efuRJDM1nXRyxQWhyXyR4x510182023-10-11T23:01:31.989ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6GgroQAmr1YjGj6szPXJVchttps://video.igem.org/lazy-static/thumbnails/0acbf513-18bd-41ce-9df3-09c099434d2a.jpgWageningenUR: Explanation video for farmers questionnaire (2023) [English]Explanation video for farmers questionnaire - PseuPomona 2023 WageningenURhttps://static.igem.org/peertube/streaming-playlists/hls/2e1cf53f-4441-4532-b68c-58c9d10e231d/29acb4fb-6870-4851-ad3c-970a9cf2828f-master.m3u8https://video.igem.org/videos/embed/6GgroQAmr1YjGj6szPXJVc111032023-10-11T23:26:26.835ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/iZrSVQv7rUaM4o1yZ41qd6https://video.igem.org/lazy-static/thumbnails/6941a097-f60e-4076-b618-5838730c7ab9.jpgUNSW-Australia: OT2 Testrun (2023) [English]UNSW-Australia: OT2 Testrun (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/91b0b335-bc4a-4644-9745-1dc0c3625ded/f133eeef-2694-4ba0-89f6-309fd99e2960-master.m3u8https://video.igem.org/videos/embed/iZrSVQv7rUaM4o1yZ41qd682032023-10-11T23:32:15.364ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pwtKUsP3RVRSr2fzKkf7UBhttps://video.igem.org/lazy-static/thumbnails/8076726e-39ec-4ae4-a17b-4dfd79024236.jpgthessaloniki: Uni Crete Collaboration (2023) [English]A collaboration with the title: "A day in the life of an iGEMer."https://static.igem.org/peertube/streaming-playlists/hls/be839bad-f422-4be0-8aac-6e9c268a4f43/ba164edc-15c1-4fc3-bbb0-b71238305e64-master.m3u8https://video.igem.org/videos/embed/pwtKUsP3RVRSr2fzKkf7UB38032023-10-12T00:14:40.969ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hzXcjxm2z4Xt7242FjRFsohttps://video.igem.org/lazy-static/thumbnails/f2bf95bb-f7df-4292-b1c2-8b7650e6c1d0.jpgthessaloniki: Collaboration (2023) [English]A collaboration with the title:"What is iGEM?"https://static.igem.org/peertube/streaming-playlists/hls/864fc738-1a7d-410e-9c89-e07989d4d55e/36a14bfa-7139-465f-a3db-33afeb1053ba-master.m3u8https://video.igem.org/videos/embed/hzXcjxm2z4Xt7242FjRFso3042023-10-12T00:17:10.245ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/r2H64j7ZJLzHdasKR9jPWYhttps://video.igem.org/lazy-static/thumbnails/fa8996d4-86c4-4dff-8961-a1179b6b0cd7.jpgKCIS-Xiugang-Taipei: Human Practice Educational About SCOBY 1 (2023) [English]This is the first video from our human practice team! This video uses fun activities to briefly introduce SCOBY.https://static.igem.org/peertube/streaming-playlists/hls/cab187f9-8668-4ebc-b95d-ba1553fd83c0/f6c71bdd-cab4-40ee-9526-b38fa6a9713e-master.m3u8https://video.igem.org/videos/embed/r2H64j7ZJLzHdasKR9jPWY301062023-10-12T00:25:46.642ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/cETFeZfaejmRpBBjn8sHMRhttps://video.igem.org/lazy-static/thumbnails/9a30795b-c489-4a0b-a697-26bd7dec6ab1.jpgLambert-GA: LabPilot Prototype 1 Axis (2023)This is a video of our first axis prototype for LabPilot.https://static.igem.org/peertube/streaming-playlists/hls/5e82a2a5-8e47-4ae9-b7c9-545f0e3cabc7/5b922c94-4fc7-4c5b-9d33-5f12cbeb62fa-master.m3u8https://video.igem.org/videos/embed/cETFeZfaejmRpBBjn8sHMR200292023-10-12T00:56:09.212ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2U93JGANNyVM4iUwG21Bj6https://video.igem.org/lazy-static/thumbnails/1dcdfef4-6bb3-48a2-bb99-129cd037ffa9.jpgKCIS-Xiugang-Taipei: Human Practice Educational About SCOBY 2 (2023) [English]This is our human practice team's second video! This video uses fun baking activities to answer questions about our project.https://static.igem.org/peertube/streaming-playlists/hls/0f60c621-7b34-470c-bc58-1f41dc047695/eb8c38e1-c7cf-4285-b4f9-6c43cbf4d97c-master.m3u8https://video.igem.org/videos/embed/2U93JGANNyVM4iUwG21Bj6383032023-10-12T01:24:52.073ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/baZfFVjVdxndQfUMocVgVHhttps://video.igem.org/lazy-static/thumbnails/0a5ccc0e-d2d4-4c8d-af9a-05bdcd7325c0.jpgTongji-China: hardware (2023)hardware in wiki for https://2023.igem.wiki/tongji-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/52605d35-6b54-43c6-918f-4320c1b7583f/d517539a-0644-4a78-aa9e-1e747ef47ab9-master.m3u8https://video.igem.org/videos/embed/baZfFVjVdxndQfUMocVgVH640142023-10-12T01:25:19.192ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4tWteHbnrGxJQypJQVM98Bhttps://video.igem.org/lazy-static/thumbnails/e6aa9c0b-7c55-4274-8e29-85311e4ccd55.jpgTongji-China: 45984e79b15e52245eb211a1fca7a3d8ddh2o (2023)results in wiki for https://2023.igem.wiki/tongji-china/resultshttps://static.igem.org/peertube/streaming-playlists/hls/1c3210db-7e00-4754-a84b-003a7259fe31/77f57c34-c205-48b1-9379-841fba092de1-master.m3u8https://video.igem.org/videos/embed/4tWteHbnrGxJQypJQVM98B20042023-10-12T05:38:00.840ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/du28GrGPB1iFmcNbhxsSh3https://video.igem.org/lazy-static/thumbnails/cdf48bd5-a877-44f8-9a10-969b09c8fdda.jpgHUST-UEVE-UPSaclay: Home-bg (2023) [English]it is the background video on the home pagehttps://static.igem.org/peertube/streaming-playlists/hls/65173002-84e2-43e0-b6f2-cdb6497e242a/c65d1c2b-36c2-4c34-9396-7d8c20355f4e-master.m3u8https://video.igem.org/videos/embed/du28GrGPB1iFmcNbhxsSh315082023-10-12T01:52:33.855ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/hCPoVTNrLaFFEDz6W7Wowvhttps://video.igem.org/lazy-static/thumbnails/5e1f686a-e544-45a9-a8c3-8f4687d94f87.jpgHarvard: Arabinose-Induced Lysis of E. coli in Protocells (2023) [English]Demonstrating the decrease in fluorescence after inducing lysis of E. coli cells suspended in protocell droplets.https://static.igem.org/peertube/streaming-playlists/hls/86b633e3-828c-415c-9137-8cdea783c951/7c152bc5-07eb-447b-a145-d43ab2671019-master.m3u8https://video.igem.org/videos/embed/hCPoVTNrLaFFEDz6W7Wowv150312023-10-12T02:23:52.298ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fjTpRhqkaG9mwWmc6hZcBvhttps://video.igem.org/lazy-static/thumbnails/42937502-98d0-4146-83fe-6a0505c8bf33.jpgBUCT: source material (2023) [Chinese]BUCT: source material (2023) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/7403032b-4092-4214-82d5-8cd7d7e6515f/332052a4-56fb-4ac8-ab02-7b13445c51ab-master.m3u8https://video.igem.org/videos/embed/fjTpRhqkaG9mwWmc6hZcBv4032023-10-12T03:06:01.525ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rd9RiZawi3XHDQjibPAomRhttps://video.igem.org/lazy-static/thumbnails/7dfed208-05d2-4828-881b-c60883c60490.jpgCPU-CHINA: team (2023) [English]https://2023.igem.wiki/cpu-china/memberhttps://static.igem.org/peertube/streaming-playlists/hls/cc26d889-d75b-40e9-9296-ac387a583291/d8aa3e65-be69-4b36-800f-56d1d31202a3-master.m3u8https://video.igem.org/videos/embed/rd9RiZawi3XHDQjibPAomR90682023-10-12T03:08:03.075ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3PwRsPABrTJwzURJsNUvZEhttps://video.igem.org/lazy-static/thumbnails/dba8492c-0201-48f0-ae0d-2c7d288c038d.jpgBIT chip structure (2023) [English]our chip structure https://2023.igem.wiki/bit/ https://static.igem.org/peertube/streaming-playlists/hls/16d53f8b-9858-4967-b93e-fe63f5e79464/a7682921-eb1c-4155-8264-9fc9b7fa20d6-master.m3u8https://video.igem.org/videos/embed/3PwRsPABrTJwzURJsNUvZE8022023-10-12T03:05:59.777ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/njngM2n8fVaAoWuWfi3fo4https://video.igem.org/lazy-static/thumbnails/0e889e2a-e949-4db5-9fb8-ef8e22df1033.jpgLZU-CHINA: iGEM Team's 20-Part Popular Science Relay Video Series (2023) [Chinese]This video compilation showcases a series of popular science relay videos collaboratively produced by various university teams participating in the iG20 initiative led by Lanzhou University. These videos serve as powerful promotional materials for educational activities.https://static.igem.org/peertube/streaming-playlists/hls/aca068b8-0d15-407a-bd83-3b297966c797/434ccba7-7bb3-4c0d-91fc-9b8f65cd0607-master.m3u8https://video.igem.org/videos/embed/njngM2n8fVaAoWuWfi3fo48680332023-10-12T03:20:51.187ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ow5dEtgGq5wQobJHwPyMhPhttps://video.igem.org/lazy-static/thumbnails/606af74f-1cce-410f-b226-7e9dc106643b.jpgSUSTech-OCE: hardware (2023)https://2023.igem.wiki/sustech-ocehttps://static.igem.org/peertube/streaming-playlists/hls/b65bf698-2c16-49be-b9f9-18c3d955b613/51c4f844-ce66-4adb-a08b-76a012dba5ab-master.m3u8https://video.igem.org/videos/embed/ow5dEtgGq5wQobJHwPyMhP5042023-10-12T03:44:38.722ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tNUszBw2at94RKQsM7cfYchttps://video.igem.org/lazy-static/thumbnails/72f13395-9d5e-4b86-a810-3ea6ebe39c07.jpgIISER-Pune-India: G20 (2023) [English]This will go on our wiki for the outreach section.https://static.igem.org/peertube/streaming-playlists/hls/e1334929-e9c5-4b9a-b4cc-65374e5dfb6b/5ca43bb7-f918-456d-adfa-9ef19d3b227b-master.m3u8https://video.igem.org/videos/embed/tNUszBw2at94RKQsM7cfYc330272023-10-12T04:04:11.668ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fGYyxGThagabzXFLmZAtnthttps://video.igem.org/lazy-static/thumbnails/f8a1ea3c-f112-4efe-9fe7-addee603d5cf.jpgIISc-Bengaluru: Bacterial Transformation Protocol (2023) [English]In this video, we have given a step-by-step protocol of Bacterial Transformation which will help all beginners of synbio. Recording: Khush Jain Editing: Agastasya Gaurhttps://static.igem.org/peertube/streaming-playlists/hls/77188c90-ec36-4c7b-ac5b-461321651789/bf7e384c-b392-412c-b0ea-49b15d5bdfce-master.m3u8https://video.igem.org/videos/embed/fGYyxGThagabzXFLmZAtnt504052023-10-12T04:47:16.819ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/onDxgh4M2XRYgZhYWXsr8xhttps://video.igem.org/lazy-static/thumbnails/cd0657ca-4ae1-491e-b6ee-dc9b029b1765.jpgIISc-Bengaluru: Into the iGEMverse | by Sana Jalili (2023) [English]This is our first video in the series, Into the iGEMverse. The series aims to expose new audiences to the iGEM ecosystem. Invited Speaker: Sana Jalili, Asia and Oceania promoter of the iGEM Community, judge for iGEM, the iGEM Design League Latin America, and the GOGEC competition in 2022 Host: Shloak Vatsalhttps://static.igem.org/peertube/streaming-playlists/hls/b52ecdce-b481-415b-b929-db342f988d79/04cc5bf1-becf-4cfe-b8a9-bcec522f5583-master.m3u8https://video.igem.org/videos/embed/onDxgh4M2XRYgZhYWXsr8x14760112023-10-12T04:51:26.592ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1LWjqkMRWMDAWsohVF9ygvhttps://video.igem.org/lazy-static/thumbnails/a10c141f-7aaa-48d6-8696-6555f32281cc.jpgIISER-Pune-India: G20 (2023) [English]Contains our bioreactor design which will go up on our wiki.https://static.igem.org/peertube/streaming-playlists/hls/06463345-724b-4083-b42a-8d4b5dc0f1d3/4d8cec7d-16ae-4dae-b235-4bfc402abff3-master.m3u8https://video.igem.org/videos/embed/1LWjqkMRWMDAWsohVF9ygv17022023-10-12T04:29:33.216ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gVokYbJBuih3Z7L11VCtLchttps://video.igem.org/lazy-static/thumbnails/7de138b9-2bea-4d14-8073-72763c7bf6fa.jpgHainanU-China: Laboratory safety promotional video (2023) [Chinese]Our team independently shot a security video and posted it on the team's official B-site account. The 3-minute safety video is set in the laboratory and the Inception space, with the students of the experimental team performing the demonstration and the students of the art team filming and producing the video. In the video, the lab students demonstrated the use of centrifuge, pipette gun, disinfection measures for contaminated area, precautions for using ultra-clean table and other common lab safety contents. The visual treatment combined with the dramatic expression led the viewers to be immersed in the scene, which made our video content rich and diversified, and intuitively expressed the importance of laboratory safety. https://static.igem.org/peertube/streaming-playlists/hls/80ed4515-fa85-47f5-816d-3585310dc4bf/ded8747a-b3a9-4c3d-9c4c-c090b1d1cd1a-master.m3u8https://video.igem.org/videos/embed/gVokYbJBuih3Z7L11VCtLc1600162023-10-12T04:39:25.645ZlaboratorysafetyYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sqPF9dNLyQxv7QFgMCnreWhttps://video.igem.org/lazy-static/thumbnails/d761e839-c979-4375-ab6a-038660ece4a5.jpgSJTU-BioX-Shanghai: Vedio2 (2023) [English]model of sjtu-biox-shanghai.https://static.igem.org/peertube/streaming-playlists/hls/d604d618-b69c-4267-a60f-aebe54244394/98792131-3149-427b-8a8a-457c22ee54e9-master.m3u8https://video.igem.org/videos/embed/sqPF9dNLyQxv7QFgMCnreW24072023-10-12T04:29:39.826ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fjtnUbuic6xJw3iSbetoXyhttps://video.igem.org/lazy-static/thumbnails/ccf07c58-f9ef-4765-a596-435d7cfecbcd.jpgMichigan: CLI Demo - Fluorescent Probe Design (2023) [English]Command line interface demo of our fluorescent probe design software. https://2023.igem.wiki/michigan/https://static.igem.org/peertube/streaming-playlists/hls/73f4337d-78f2-4bc6-aa75-70a6d41afaf6/406a3de7-bead-4caa-8f40-25f9b954228b-master.m3u8https://video.igem.org/videos/embed/fjtnUbuic6xJw3iSbetoXy417022023-10-12T05:03:09.021ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rUPiH2EYPBKaJXk1NwepCzhttps://video.igem.org/lazy-static/thumbnails/cc09f4bd-5cdd-445d-8ee5-987e84b7612a.jpgMichigan: Health Equity Symposium (2023) [English]Recording of Health Equity Symposium that we hosted to connect with other iGem teams in order to share resources and ideas in regards to improving health equity. https://2023.igem.wiki/michigan/https://static.igem.org/peertube/streaming-playlists/hls/d1d44ba3-b2fa-4a1a-b0f9-611ac67923ad/65f35ceb-e55a-4130-910f-c6f072d557a0-master.m3u8https://video.igem.org/videos/embed/rUPiH2EYPBKaJXk1NwepCz5564012023-10-12T05:41:44.513ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3gvWCTznVESyDsmhDEypvfhttps://video.igem.org/lazy-static/thumbnails/fc1d2099-8a77-4c6f-9dfe-74b90a4bef0e.jpgLZU-CHINA: Episode Four: Medical Applications (2023) [English]The fourth episode of our educational series dives into the medical applications of synthetic biology. This field has made significant strides in drug development, therapeutics, and diagnostics, revolutionizing the way we approach healthcare.https://static.igem.org/peertube/streaming-playlists/hls/125ce2e3-76d4-4006-a94a-33d136502c5c/6055ea54-ede6-4dbf-8bd4-1c39a3fe3be6-master.m3u8https://video.igem.org/videos/embed/3gvWCTznVESyDsmhDEypvf224022023-10-12T06:37:04.789ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kBLaaXCzfGimXwJZFaRF1Shttps://video.igem.org/lazy-static/thumbnails/598058bc-0e0b-467f-a9ac-e2821ce0ca4a.jpgIISc-Bengaluru: Competency Protocol (2023) [English]The video explains the detailed protocol of preparing competent cells. Recording: Khush Jain Editing: Agastasya Gaurhttps://static.igem.org/peertube/streaming-playlists/hls/9edbe141-86e7-4ea1-95c5-7ba43c4bac86/3cf168ff-ac4b-407a-b12f-096e6265bbac-master.m3u8https://video.igem.org/videos/embed/kBLaaXCzfGimXwJZFaRF1S549062023-10-12T07:27:54.973ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2KfSX9r1GCt27WC1n2Uzwxhttps://video.igem.org/lazy-static/thumbnails/260425ea-d54c-4b54-b533-2dcb887dae60.jpgLZU-CHINA: Episode Seven: Safety, Ethics, and Regulation in Synthetic Biology (2023) [English]The seventh episode of our series delves into the safety, ethical considerations, and regulatory aspects of synthetic biology. This episode aims to provide insight into the potential risks, moral implications, and the legislative frameworks governing this revolutionary field.https://static.igem.org/peertube/streaming-playlists/hls/0e234a3a-055a-4942-9669-715cea0603df/ff9f1717-0957-48f9-ba43-f3bfdd49df7e-master.m3u8https://video.igem.org/videos/embed/2KfSX9r1GCt27WC1n2Uzwx320032023-10-12T06:38:55.254ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/57b5QSMYo6WaRTD8Ez1Simhttps://video.igem.org/lazy-static/thumbnails/e5870675-b390-41b4-9993-f59aa660d42e.jpgLZU-CHINA: Episode Eight: Societal and Global Impacts of Synthetic Biology (2023) [English]In this eighth episode, we will discuss the extensive societal and global impacts of synthetic biology, considering how it affects communities, cultures, and international relations. We aim to explore how innovations in synthetic biology interact with societal norms and values and scrutinize the responsibilities of scientists and nations in harnessing synthetic biology sustainably and ethically.https://static.igem.org/peertube/streaming-playlists/hls/21413b3f-46e1-4f85-955e-a8eccc0ebb06/3ce7cb29-a276-4b20-97a6-9f368ab2d818-master.m3u8https://video.igem.org/videos/embed/57b5QSMYo6WaRTD8Ez1Sim216002023-10-12T06:39:22.673ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dDj6Je1Uw52nXXKDZqd8mLhttps://video.igem.org/lazy-static/thumbnails/94f95ac7-9726-437e-a4e8-bd45179912de.jpgLZU-CHINA: Episode Nine: Expanding Horizons: Artificial Life and Beyond (2023) [English]In this ninth episode, we traverse beyond conventional domains to explore groundbreaking realms of synthetic biology including artificial life, bio-robots, bio-computers, precision medicine, and synthetic ecosystems. We aim to elucidate the frontiers of synthetic biology that have the potential to redefine life, revolutionize technologies, and remodel ecosystems.https://static.igem.org/peertube/streaming-playlists/hls/66635650-86d0-4cad-b444-6a69eda4d870/fcd7f7b7-bce9-4ce7-80a6-1c55d7d6023b-master.m3u8https://video.igem.org/videos/embed/dDj6Je1Uw52nXXKDZqd8mL390032023-10-12T06:40:09.815ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aQ9GpgVPQdCjL6QHcYQMpfhttps://video.igem.org/lazy-static/thumbnails/b37f49ee-26cb-4aca-92d2-59916b2ce0de.jpgLZU-CHINA: Episode Ten: Beyond Nature: Envisioning Humanity's Future (2023) [English]In our final episode of this series, we delve into the transformative potential of synthetic biology, exploring its role in reshaping our perceptions and aspirations for the future of humanity. We will assess the transcendental possibilities unlocked by advancements in synthetic biology and reflect on the journey we've undertaken through this series to comprehend the vast and intricate tapestry of this field.https://static.igem.org/peertube/streaming-playlists/hls/4f9b4ef0-4979-4919-bb12-f6f01389c2b8/e71e7a74-1e3e-4318-aab1-7b26fec26ffb-master.m3u8https://video.igem.org/videos/embed/aQ9GpgVPQdCjL6QHcYQMpf219022023-10-12T06:40:36.589ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nHKm4XknnY27TxhxKkzLW8https://video.igem.org/lazy-static/thumbnails/3479e769-ef59-4a89-8545-118051dd2749.jpgYale: The Rita Wilson Prize in Support of Innovation and Entrepreneurship in Health Technology - ...In this video, Hassaan presents 'Equolity Bio' at the Rita Wilson Prize Fund for Innovation and Entrepreneurship. Dive in to learn about our groundbreaking approach to affordable menopause treatment using equol, our journey from research to entrepreneurship, and our vision for the future of women's health. Don't miss the insights that impressed the judges and secured our victory!https://static.igem.org/peertube/streaming-playlists/hls/afe41e8d-eef3-4d68-aee3-9ed5c63cde6b/c2faccef-8e10-4953-9828-edd27dba910b-master.m3u8https://video.igem.org/videos/embed/nHKm4XknnY27TxhxKkzLW810200192023-10-12T06:04:39.977ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/vB6mXeJbSmTvynWQw4nQp3https://video.igem.org/lazy-static/thumbnails/1a8b4fcd-17ec-47ec-a34a-027c5f4fe39a.jpgIISER-Bhopal: bioreactor_working (2023) [English]working of the bioreactor. wiki link: https://2023.igem.wiki/iiser-bhopal/ https://static.igem.org/peertube/streaming-playlists/hls/efbf5b69-52dc-4fb8-9f9a-3d577a587530/13840d4a-850f-44a2-a451-afaddb25a52e-master.m3u8https://video.igem.org/videos/embed/vB6mXeJbSmTvynWQw4nQp360452023-10-12T06:08:50.685Zdegradationfeathersfeather degradationfermentorbioreactorYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gZdAW9yP1uPqELVx8PfyZQhttps://video.igem.org/lazy-static/thumbnails/0eb1a266-13a3-4caf-aa28-43afeff0f58b.jpgBASIS-China: The fun time (2023) [English]This is a short clip we made while we were filming for the promotion video. https://static.igem.org/peertube/streaming-playlists/hls/81763dc1-94e1-4ffc-b96d-86ab094c8b5a/ecac30d8-aef1-406d-8a9e-a640f4cbcf1b-master.m3u8https://video.igem.org/videos/embed/gZdAW9yP1uPqELVx8PfyZQ1200172023-10-12T06:05:31.717ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/82SaCG4icwt7DoSk8R9Sryhttps://video.igem.org/lazy-static/thumbnails/c6edb830-0bd5-4247-92dd-57eff079b6eb.jpgIISER-Bhopal: bioreactor_testing (2023) [English]testing of the bioreactor wiki link: https://2023.igem.wiki/iiser-bhopal/https://static.igem.org/peertube/streaming-playlists/hls/38f2a15d-9df8-41a6-84e0-ec200d362b42/97e31757-a7f2-426d-9685-be185d9f7305-master.m3u8https://video.igem.org/videos/embed/82SaCG4icwt7DoSk8R9Sry60462023-10-12T06:08:56.724Zfermentor testingbioreactor testingfermentorbioreactorYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4AAXkACaLQpoUMfoJmUNUChttps://video.igem.org/lazy-static/thumbnails/1ca1bcfd-dff3-4887-80a4-43cdff967963.jpgAachen: Model Animation (v2) (2023) [English]Animation for peptide modeling in iGEM Aachen 2023 Wiki (version 2). 2023.igem.wiki/aachen/model https://static.igem.org/peertube/streaming-playlists/hls/1d203ed1-e5fe-463b-bfef-aaa9c14eab84/fcdbe7db-b830-4618-a887-f10ed8a6d5c7-master.m3u8https://video.igem.org/videos/embed/4AAXkACaLQpoUMfoJmUNUC34012023-10-12T06:17:31.517ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/6f1y5ghLSDtq74ejj9R3LWhttps://video.igem.org/lazy-static/thumbnails/75d7d356-7396-4e32-8786-d9e9486f9c0a.jpgAachen: E-Waste Globe (v2) (2023) [English]Video of globe with e-waste facts for iGEM Aachen 2023 Wiki (version 2). 2023.igem.wiki/aachen https://static.igem.org/peertube/streaming-playlists/hls/2a727266-4689-42ad-afe8-e8f370f873de/1a102231-9c60-4845-9d93-c6ffc4f0b0f4-master.m3u8https://video.igem.org/videos/embed/6f1y5ghLSDtq74ejj9R3LW1042023-10-12T06:17:33.617ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/36xnHFYjfmeNsiD5FmrB6qhttps://video.igem.org/lazy-static/thumbnails/95ff567c-33ba-4c73-b00b-62be77bab40e.jpgBASIS-China: Waving goodbye (2023)A scene of all our team members waving goodbye after we filmed for group photo.https://static.igem.org/peertube/streaming-playlists/hls/10f854d4-9926-4517-8b2f-8748317b3e2e/87721412-5401-4cf9-bbe6-878d349ad8a7-master.m3u8https://video.igem.org/videos/embed/36xnHFYjfmeNsiD5FmrB6q1003032023-10-12T06:35:59.469ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/sQJxwM5MSxbKx5w6eC9D9qhttps://video.igem.org/lazy-static/thumbnails/2614d102-708a-463b-88f5-e4dd50909322.jpgMunichBioinformatics: Sepia Architecture Explainer (2023) [English]Explains the graph neural network structurehttps://static.igem.org/peertube/streaming-playlists/hls/d95b8649-d967-484b-9921-f1fc73a858fc/30e36648-2280-440d-90b0-6d03f8745aeb-master.m3u8https://video.igem.org/videos/embed/sQJxwM5MSxbKx5w6eC9D9q1560432023-10-12T07:01:49.718ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nYgEBzrxqxqCnLnYt4UbwNhttps://video.igem.org/lazy-static/thumbnails/ea5e9a93-2368-4e11-8506-691e3750cd66.jpgHUST-UEVE-UPSaclay: Celegans_chemotaxsis (2023) [English]a movement of the C.elegans in the chemotaxsis experimenthttps://static.igem.org/peertube/streaming-playlists/hls/b1eb37a3-98e7-4eb1-b09e-b388eecc1212/de02733d-93c6-42fe-93bd-b0d1e9101110-master.m3u8https://video.igem.org/videos/embed/nYgEBzrxqxqCnLnYt4UbwN24022023-10-12T07:02:04.774ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5pcHdJ78UpA2pnQzm79PNFhttps://video.igem.org/lazy-static/thumbnails/ddd132dc-db8e-457d-923c-4e7df40d9463.jpgGreatBay-SCIE: Homepagevideo (2023) [Chinese]the new version of our homepage videohttps://static.igem.org/peertube/streaming-playlists/hls/23a1e0d9-18e3-4016-bc4e-9b40c72a398f/18aee3b1-098c-497e-8c7f-b62da9e9d56f-master.m3u8https://video.igem.org/videos/embed/5pcHdJ78UpA2pnQzm79PNF6072023-10-12T07:16:25.145ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/vDkqLhQJr4omFskGjtTwjihttps://video.igem.org/lazy-static/thumbnails/3e016d05-8659-48f4-808a-dd86468c8431.jpgIonis-Paris: Model_Representation of the photobioreactor (2023) [English]To have a prediction of the efficiency of our system we decided to create a realistic model that would help us to get theoretical data for our system. This model consists of 3 parts that work with each other. We have the first place which is a 2D graph that displays points. Each point is considered as an entity of our system. In the 2nd part we can see a graph representing the changes of population in the media. Finally the last graph represents the evolution of the temperature in function of the time. We decided to simulate a fed batch bioreactor as it possesses interesting characteristics for our project. To have access to the code : https://gitlab.igem.org/2023/software-tools/ionis-paris/-/tree/main/model For more informations : https://2023.igem.wiki/ionis-paris/project/modelhttps://static.igem.org/peertube/streaming-playlists/hls/f00f834e-a219-43f6-8274-5c7ca9c98bc5/54aeb40c-2606-410a-8a26-4091bd45d0d4-master.m3u8https://video.igem.org/videos/embed/vDkqLhQJr4omFskGjtTwji41052023-10-12T08:03:03.230ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kDhqwZr7ADvfecggkJRqCthttps://video.igem.org/lazy-static/thumbnails/b909fe72-0f2d-41a2-a9f5-60a098e547f2.jpgLZU-CHINA: Episode Two: DNA and Genetic Engineering（sign language） (2023) [English]DNA, or Deoxyribonucleic Acid, is the genetic material that forms the blueprint of life. Genetic Engineering, on the other hand, is the direct manipulation of an organism's genes using biotechnology. This episode aims to introduce you to the fascinating world of DNA and the basics of Genetic Engineering, which are both cornerstones of Synthetic Biology.https://static.igem.org/peertube/streaming-playlists/hls/9f12466a-c1d0-47c7-8c30-da876479ed0b/62e214fe-e2cf-43e4-9216-73d669d72670-master.m3u8https://video.igem.org/videos/embed/kDhqwZr7ADvfecggkJRqCt203012023-10-12T07:42:41.988ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5zMVhvaiV7B33pBkTSLRmMhttps://video.igem.org/lazy-static/thumbnails/44c9025e-99ae-4282-8c6f-87cba2e80333.jpgLZU-CHINA: Episode Three: Basic Biological Components（sign language） (2023) [English]The third episode in this educational series explores the building blocks of synthetic biology: the basic biological components like biological circuits and biosensors. These components serve as the 'nuts and bolts' in synthetic biology, enabling the construction and manipulation of biological systems.https://static.igem.org/peertube/streaming-playlists/hls/251c65bf-8406-42b9-9bc0-8ed02ee494b9/40706049-79a4-413b-8e3b-6a19e1540d98-master.m3u8https://video.igem.org/videos/embed/5zMVhvaiV7B33pBkTSLRmM208022023-10-12T07:55:54.230ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/gEMpV6XQSdJBeLzEHe76j4https://video.igem.org/lazy-static/thumbnails/6c4b31b5-2ed0-47ef-a8d3-f13832405769.jpgDNHS-SanDiego-CA: model1 (2023) [English]DNHS-SanDiego-CA: model1 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/7ee3545a-939d-4c56-96c3-2d7ab93e852b/402e4299-2578-4a4e-bd8f-88f42b8ebc40-master.m3u8https://video.igem.org/videos/embed/gEMpV6XQSdJBeLzEHe76j424052023-10-12T08:02:23.708ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tgq1HEzRrWX1V7oGFePP46https://video.igem.org/lazy-static/thumbnails/2c02da00-a838-47a1-a7e9-30956165a514.jpgDNHS-SanDiego-CA: model2 (2023) [English]DNHS-SanDiego-CA: model2 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/dccdb2d2-bd65-4dbd-bf83-05d5ebd24dd7/a076a61e-a7a0-4171-ae87-456c3f675ae1-master.m3u8https://video.igem.org/videos/embed/tgq1HEzRrWX1V7oGFePP4624072023-10-12T08:04:25.984ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1s7xiGmysCimevp1HQXsXMhttps://video.igem.org/lazy-static/thumbnails/958c44f3-31dc-464d-8e28-a8f4605d2be4.jpgLZU-CHINA: Episode One: What is Synthetic Biology?（sign language） (2023) [English]Synthetic biology is an interdisciplinary scientific field that focuses on life systems and organisms, applying engineering principles to develop new biological components, devices, and systems, or to redesign existing systems found in nature.https://static.igem.org/peertube/streaming-playlists/hls/03a55e47-9700-4ad5-b618-980135a5e303/b3a1efe5-a62a-4893-98e7-515324945a01-master.m3u8https://video.igem.org/videos/embed/1s7xiGmysCimevp1HQXsXM210042023-10-12T08:07:13.579ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/87s6Q8h6oQhnXk2SLNLmYVhttps://video.igem.org/lazy-static/thumbnails/c9cb67af-76fd-4fa8-972c-be2316453961.jpgDNHS-SanDiego-CA: model3 (2023) [English]DNHS-SanDiego-CA: model3 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/399684ac-3287-4b0d-8800-3289ac18a2f5/0d869c1d-efa1-49d9-b8aa-699110a294c2-master.m3u8https://video.igem.org/videos/embed/87s6Q8h6oQhnXk2SLNLmYV24042023-10-12T08:06:17.132ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/cHXABMPerAf6oWGAe44j7fhttps://video.igem.org/lazy-static/thumbnails/c86e3620-cd02-4ddd-a56a-cc799b5b40f9.jpgDNHS-SanDiego-CA: model4 (2023) [English]DNHS-SanDiego-CA: model4 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/5ef04858-b584-498a-9dcf-8d385652ab3a/42bfe017-9c65-4604-9b75-6f118bf532af-master.m3u8https://video.igem.org/videos/embed/cHXABMPerAf6oWGAe44j7f24012023-10-12T08:06:24.156ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/44b3J4a1yrohr5EBMS7L9ahttps://video.igem.org/lazy-static/thumbnails/f44a0f76-552e-45dc-be6b-bfc7c3cc3fec.jpgDNHS-SanDiego-CA: model5 (2023) [English]DNHS-SanDiego-CA: model5 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/18bcd6c6-5672-443f-84a4-86c7308f12f9/43cd2e72-0f4a-47f5-9277-db9a0601ae5f-master.m3u8https://video.igem.org/videos/embed/44b3J4a1yrohr5EBMS7L9a24002023-10-12T08:07:36.954ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/1gMhtg2kUKxitW5QaHcBsBhttps://video.igem.org/lazy-static/thumbnails/35a96a1d-b3f3-43a5-bd03-38ea11647b3c.jpgMSP-Maastricht: ABCDna-DNA origami (2023) [English]This video is the first release in our series called ABCDna. This series is meant to explain difficult concepts within synthetic biology and beyond in a fun and easy way!https://static.igem.org/peertube/streaming-playlists/hls/02341054-38e8-4b09-8c4f-5ef8df0a01db/95146017-6bb2-4ffb-81d2-2ca59d8e77e1-master.m3u8https://video.igem.org/videos/embed/1gMhtg2kUKxitW5QaHcBsB1310172023-10-12T08:10:17.267ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uN67iyiYgk3mB4vbtNfbNMhttps://video.igem.org/lazy-static/thumbnails/5565fb89-283c-4254-8384-11cc248107fc.jpgDNHS-SanDiego-CA: model6 (2023) [English]DNHS-SanDiego-CA: model6 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/e92f3e85-b6f7-4765-b598-980413ed8cf1/c217da66-736b-41ee-b960-f2bd70d89981-master.m3u8https://video.igem.org/videos/embed/uN67iyiYgk3mB4vbtNfbNM24012023-10-12T08:09:06.718ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/23dSyS1noAwmim27Ctvnyihttps://video.igem.org/lazy-static/thumbnails/d898adf9-9f9e-41e6-9d82-b41dd58398c3.jpgLZU-CHINA: Episode Five: Environmental Applications（sign language） (2023) [English]In the fifth episode of this series, we'll explore how synthetic biology is shaping the future of environmental sustainability. From pollution control to sustainable development, synthetic biology offers innovative solutions for tackling the most pressing environmental challenges.https://static.igem.org/peertube/streaming-playlists/hls/08688f0a-5c75-4cef-9ecc-99b4f3281afd/5dc18442-9ca1-429e-bd56-9fb9ee5a5b8d-master.m3u8https://video.igem.org/videos/embed/23dSyS1noAwmim27Ctvnyi251032023-10-12T08:14:14.581ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/kinjcHE4BVGQBzg1BdQQn9https://video.igem.org/lazy-static/thumbnails/2d0e4eba-48ba-401c-a9f3-bdbf62284f3d.jpgDNHS-SanDiego-CA: model7 (2023) [English]DNHS-SanDiego-CA: model7 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/9c4a69eb-1222-46ea-bd93-d5ebdec4312a/b68d8e96-cecb-44c1-80a5-4c9efae2c24d-master.m3u8https://video.igem.org/videos/embed/kinjcHE4BVGQBzg1BdQQn924012023-10-12T08:13:16.871ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/edNTWFQWpMc7BNj9Rtr1qPhttps://video.igem.org/lazy-static/thumbnails/6d23db94-91dc-45f7-8fe8-28f408ced477.jpgDNHS-SanDiego-CA: model6 (2023) [English]DNHS-SanDiego-CA: model6 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/6b10a0d4-52ba-4d45-926b-9485a36d02d7/0741c138-7e11-4a91-9c1e-c9629c5c7640-master.m3u8https://video.igem.org/videos/embed/edNTWFQWpMc7BNj9Rtr1qP24002023-10-12T08:14:39.907ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dAqipKfMoytcLCVwRpB5mmhttps://video.igem.org/lazy-static/thumbnails/4b5d022d-83dd-43b2-a027-dbe5a322a07e.jpgLZU-CHINA: Episode Six: Agricultural and Industrial Applications（sign language） (2023) [English]In this sixth episode, we will explore the multifaceted applications of synthetic biology in agriculture and industry. With the capability to improve crop yields, control pests, and even revolutionize industrial processes, synthetic biology is set to make a significant impact.https://static.igem.org/peertube/streaming-playlists/hls/65fbed77-a5e5-45fb-9c87-0eb7f52ce4b4/82b4dd88-fe27-495b-a46f-b83d5e2bca7b-master.m3u8https://video.igem.org/videos/embed/dAqipKfMoytcLCVwRpB5mm235042023-10-12T08:19:28.674ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/vayagQArpTdfvixGShPkqShttps://video.igem.org/lazy-static/thumbnails/555a1617-bb27-472d-8de2-5c9585dbaa64.jpgNMU-China: Growth and production model (2023) [English]It described our growth and production model, which will be put on https://2023.igem.wiki/nmu-china/modelhttps://static.igem.org/peertube/streaming-playlists/hls/ec2e88c7-e5e3-4d34-85e6-5d1311270166/30c53103-0517-4e96-aab8-32b702746399-master.m3u8https://video.igem.org/videos/embed/vayagQArpTdfvixGShPkqS91002023-10-12T09:50:59.024ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/fhLKXr9paR3xz4nrQtUkgkhttps://video.igem.org/lazy-static/thumbnails/05914d9f-b694-404a-bb4c-74fd8ef85c1d.jpgNMU-China: Model for TET control (2023) [English]It shows our modeling for drug control kill switch circuit, which will be put on https://2023.igem.wiki/nmu-china/modelhttps://static.igem.org/peertube/streaming-playlists/hls/73b76cb0-9a34-4027-91ea-2c53716e0db5/3beb9918-f3db-4915-85ce-8301e037632e-master.m3u8https://video.igem.org/videos/embed/fhLKXr9paR3xz4nrQtUkgk125002023-10-12T09:54:50.110ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2iZSfExwhXxueduVmjuWa8https://video.igem.org/lazy-static/thumbnails/91b951b8-1cee-4c13-81bb-373002110383.jpgGreatBay-SCIE: Hardware (2023) [Chinese]This is a video demonstration of our hardware https://2023.igem.wiki/greatbay-scie/index.html https://static.igem.org/peertube/streaming-playlists/hls/0a9c71b7-514a-424e-ba99-7ae010be06e9/85bae420-62c7-4b24-915b-b2c659541489-master.m3u8https://video.igem.org/videos/embed/2iZSfExwhXxueduVmjuWa8830362023-10-12T10:14:16.722ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/crPegfrf7mf12efUmvmJpyhttps://video.igem.org/lazy-static/thumbnails/d48759b9-885e-476d-802e-53e85ec2c25e.jpgSCAU-China: Project Demo (2023) [English]Take a look at our QAA work with this video. For more information, please visit our wiki. https://2023.igem.wiki/scau-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/5caf39a7-8613-4615-8fea-8b59d37e72ae/48319662-fa69-4507-8035-a7a5ac60ec15-master.m3u8https://video.igem.org/videos/embed/crPegfrf7mf12efUmvmJpy390312023-10-12T10:17:14.034ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eqb4ov9ZC8os4YWy16yc9Xhttps://video.igem.org/lazy-static/thumbnails/f0c545ef-e79e-455a-9f69-979be6821353.jpgMSP-Maastricht: ABCDna-Bacteriophages (2023) [English]This is the second release of our series ABCDna. A series meant to make difficult concepts within synthetic biology easy and fun to understand! In this video the concept of bacteriophages will be discussed.https://static.igem.org/peertube/streaming-playlists/hls/6ca6da0e-14b3-4728-a498-f6cda939e5e3/baae0c22-97a8-430b-ab32-b639cadd290e-master.m3u8https://video.igem.org/videos/embed/eqb4ov9ZC8os4YWy16yc9X149082023-10-12T10:35:56.948ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/4UznKaUEWBjyVj5sZ6vHK9https://video.igem.org/lazy-static/thumbnails/5b1a8dcf-9809-43df-9280-b88ff74c85f9.jpgAIS-China: Online course 1 (2023) [English]This is one of the online courses. https://2023.igem.wiki/ais-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/1fa2a8f8-0062-45e1-986c-658bc784ad82/11297e43-1383-419f-b95e-9e31fae6c0ca-master.m3u8https://video.igem.org/videos/embed/4UznKaUEWBjyVj5sZ6vHK9257032023-10-12T10:36:59.085ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pbuhFAMMLTyroUVEe3zSMbhttps://video.igem.org/lazy-static/thumbnails/6809d7dc-8375-4fe2-a78f-e73d77865fa9.jpgCity-of-London-UK: A Guide to GENOSWITCH's Software (2023) [English]In this video, Rishabh, our Head of Software, explains how to use our new tool to generate and optimise Toehold Switches. https://2023.igem.wiki/city-of-london-uk/ Created by: Rishabh Das (Head of Software)https://static.igem.org/peertube/streaming-playlists/hls/bbb90f4c-002e-4e67-98f9-14b9d3118bac/0cc5d46f-59eb-4e1b-9ea7-f10563d291b3-master.m3u8https://video.igem.org/videos/embed/pbuhFAMMLTyroUVEe3zSMb1120492023-10-12T10:56:39.863ZGENOSWITCHCity of London UKYESiGEM 2023 TeamsNOhttps://video.igem.org/w/jAGp685R86Ns3xDSWGSCPphttps://video.igem.org/lazy-static/thumbnails/c16b64e3-d597-4562-8508-d07e952a9e02.jpgAIS-China: Online course 2 (2023) [English]This is one of the online courses. https://2023.igem.wiki/ais-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/969cae25-5e5b-4cb8-b00a-8db052fd71dd/586803df-abe6-4559-afa3-6120ef81facf-master.m3u8https://video.igem.org/videos/embed/jAGp685R86Ns3xDSWGSCPp619042023-10-12T10:39:05.355ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/pD6jcZBjDU7G3rQkwbfBXPhttps://video.igem.org/lazy-static/thumbnails/a3a8cffb-d7d1-45be-aa61-7aa9bbccc98b.jpgAIS-China: Online course 3 (2023) [English]This is one of the online courses. https://2023.igem.wiki/ais-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/bf6ffbc5-8d1c-439c-b46d-89ef28a8fde1/999a1c7d-76e7-438e-a6a0-27ce842b78d1-master.m3u8https://video.igem.org/videos/embed/pD6jcZBjDU7G3rQkwbfBXP879002023-10-12T10:40:59.286ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/wBPoLd3X9wqFJ2rfWMLSrahttps://video.igem.org/lazy-static/thumbnails/3396d938-20af-4fb4-8820-2ccb8d793b99.jpgAIS-China: Online course 4 (2023) [English]This is one of the online courses. https://2023.igem.wiki/ais-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/f7f265fc-9cc0-45a2-88c8-b33b98fe102b/eb66f085-cb49-4a51-b396-db9e4c42d4b8-master.m3u8https://video.igem.org/videos/embed/wBPoLd3X9wqFJ2rfWMLSra196012023-10-12T10:41:29.297ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mc3wHkwjtedZcVnjuVnbbuhttps://video.igem.org/lazy-static/thumbnails/2cc337e6-5045-4c65-aa1f-af5b52e0e37d.jpgAIS-China: Online course 5 (2023) [English]This is one of the online courses. https://2023.igem.wiki/ais-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/a3818377-db23-4a81-9c93-91d7225390e0/ae63c153-6b09-4509-8b63-01f939a2bce8-master.m3u8https://video.igem.org/videos/embed/mc3wHkwjtedZcVnjuVnbbu910002023-10-12T10:42:28.385ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dQTdYirfpxB6sGF5ozHdmehttps://video.igem.org/lazy-static/thumbnails/28217ef0-ac55-40e9-9203-1097dd7f8b46.jpgAIS-China: Online course 6 (2023) [English]This is one of the online courses. https://2023.igem.wiki/ais-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/6800eebc-9751-457e-9445-fbbc3edfb7fd/b810d6d5-37ff-427d-9d3a-5c2d0534b3cb-master.m3u8https://video.igem.org/videos/embed/dQTdYirfpxB6sGF5ozHdme452002023-10-12T10:43:15.101ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/aEU17k55bi5hoDhFdoZvLchttps://video.igem.org/lazy-static/thumbnails/0814ad1b-ff53-431d-88f5-516c0fc925a8.jpgAIS-China: Online course 7 (2023) [English]This is one of the online courses. https://2023.igem.wiki/ais-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/4e508ef9-b85e-487b-b350-912a7b20099f/929f4ce5-239b-407c-a400-4cda9596f79d-master.m3u8https://video.igem.org/videos/embed/aEU17k55bi5hoDhFdoZvLc796012023-10-12T10:44:11.633ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/b1Kh2WHihHqVhRzQAKUM8hhttps://video.igem.org/lazy-static/thumbnails/953bbd69-60cc-438d-ac3b-e52acbc1b2f0.jpgAIS-China: exhibition (2023) [Chinese]This is one of the sections of the exhibition: lecture. Wiki link：https://2023.igem.wiki/ais-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/51160e80-d7dc-4f46-877b-5dfd1fe9ed8a/71144885-6ce1-410b-a5ab-d9290dd6d5ec-master.m3u8https://video.igem.org/videos/embed/b1Kh2WHihHqVhRzQAKUM8h233092023-10-12T10:49:09.711ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tu1oiq1dEANSfVgbSfHe3shttps://video.igem.org/lazy-static/thumbnails/bb3f5992-b834-4de9-8d63-6a3ceae1ea8d.jpgSUSTech-MED: Safety vedio (2023) [Chinese]This is our laboratory safety video, welcome to watch！https://static.igem.org/peertube/streaming-playlists/hls/de8fce6b-85ba-4c83-8a10-9fb4f23040ea/0361f246-99d5-4ded-8f48-d9befcb29db7-master.m3u8https://video.igem.org/videos/embed/tu1oiq1dEANSfVgbSfHe3s4310242023-10-12T10:53:22.593ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2stponxssmn616dyrNPJLwhttps://video.igem.org/lazy-static/thumbnails/4975c9d5-e946-4837-adc5-4f59dcf11ef0.jpgFreiburg: Molecular Dynamics Simulation of BluB monomer and BluB fusion construct (2023)Molecular Dynamics Simulation 30 ns in OpenMM with Amber ff14 force fields. Sequence from piG_01b for the BluB monomer and a novel BluB fusion protein consisting of two BluB molecules connected by a flexible linker.https://static.igem.org/peertube/streaming-playlists/hls/0bcb5d50-1577-4b10-ae67-2dd7ec185bd6/3f2d499b-c497-4432-8cd7-549b7d4aa58c-master.m3u8https://video.igem.org/videos/embed/2stponxssmn616dyrNPJLw130492023-10-12T11:11:02.525ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/5ppAxcDHEj2Rrp8fCrfaSYhttps://video.igem.org/lazy-static/thumbnails/560153ec-3207-4ff7-b7e4-0eef8938a840.jpgBNU-China: Rules of Bioframe Riddle Game (2023) [English]Rules of Bioframe Riddle Gamehttps://static.igem.org/peertube/streaming-playlists/hls/23a933dc-6ecf-439d-acab-b9f496c5ef10/1aecf2ce-3e86-406b-8b73-c23b6c88b837-master.m3u8https://video.igem.org/videos/embed/5ppAxcDHEj2Rrp8fCrfaSY770102023-10-12T11:54:56.598ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/dcr6CVWjjTPLt6C5swj7YPhttps://video.igem.org/lazy-static/thumbnails/85e479f7-b477-4d4a-ad3e-2ee92fb9e6fb.jpgUNSW-Australia: OT2-xArm6-PlateReader Integration (2023) [English]UNSW-Australia: OT2-xArm6-PlateReader Integration (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/62c64fe4-72be-4375-a55f-ffcb919ebaa7/c9f4f728-40bf-475e-998b-e1a166cf7c33-master.m3u8https://video.igem.org/videos/embed/dcr6CVWjjTPLt6C5swj7YP60082023-10-12T12:40:26.882ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/oLhioavTaRRgbnwv81SEvmhttps://video.igem.org/lazy-static/thumbnails/40cf90c9-df80-4fb4-894c-63d3b1cf6d36.jpgLZU-CHINA: iGEM Group of 20 Project Introduction Video (2023) [English]This video showcases school introductions and project overviews from all participating university teams in the iG20 event led by Lanzhou University. It serves as a powerful promotional material for educational activities.https://static.igem.org/peertube/streaming-playlists/hls/b857d24a-03f9-448b-94fd-d841ba6dca6e/80d7b595-0aa7-4a3f-83b7-e003123ee049-master.m3u8https://video.igem.org/videos/embed/oLhioavTaRRgbnwv81SEvm18150322023-10-12T13:19:54.888ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2LFigxQdQ56AqfEqiYzdUghttps://video.igem.org/lazy-static/thumbnails/c37a7f42-8bcc-40b2-9e29-16864b78ad00.jpgSUSTech-CHINA: Untitled (2023) [Chinese]SUSTech-CHINA: Untitled (2023) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/0e561526-d625-4830-977b-b0f38b1246cf/72108563-ef2e-4c30-8dc4-eb03fa02ae10-master.m3u8https://video.igem.org/videos/embed/2LFigxQdQ56AqfEqiYzdUg338012023-10-12T14:21:56.021ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nqdrk9uKWQJ6X2qyjRgZtphttps://video.igem.org/lazy-static/thumbnails/008b942f-24d5-4192-95ad-b712d032ae68.jpgBostonU-HW: APUS Proof of Integration (2023) [English]This video depicts our APUS hardware full integration from our solenoid GUI, to solenoid system, to motherboard, passing fluid to our PDMS chips, and finally to waste. Find out more about our project at: https://2023.igem.wiki/bostonu-hw/https://static.igem.org/peertube/streaming-playlists/hls/ad716d3f-211d-4024-a1f0-3916235a5fe1/f945d349-5f8a-4892-a837-a7e2e430253b-master.m3u8https://video.igem.org/videos/embed/nqdrk9uKWQJ6X2qyjRgZtp770142023-10-12T14:20:10.597ZautomationmicrofluidicshardwareYESiGEM 2023 TeamsNOhttps://video.igem.org/w/3USAB1CH7bKbUKcANdLY2hhttps://video.igem.org/lazy-static/thumbnails/f7f83f3b-c74a-496b-a794-3251e24ae83a.jpgGEMS-Taiwan: Latent Class Analysis with Free Software Jamovi (2023) [English]Tutorial of Latent Class Analysis by Cure-All-Reefs iGEM-2023 https://2023.igem.wiki/gems-taiwan/homehttps://static.igem.org/peertube/streaming-playlists/hls/17942277-35b4-4f41-9123-4d6c10e0998a/7062e04f-aea1-4da3-aeda-ac50aae734b4-master.m3u8https://video.igem.org/videos/embed/3USAB1CH7bKbUKcANdLY2h61201892023-10-12T14:27:59.118ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/qaTddwufnjpuz4eSzegj1Uhttps://video.igem.org/lazy-static/thumbnails/b2e6e471-fc96-454d-bb49-0df6d98838e4.jpgXHD-WuHan-China: hardware (2023) [English]XHD-WuHan-China: hardware (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/c3bc94d8-f75e-4908-b3ca-0f8774974e84/8bc29a43-77a6-4ad5-ba27-1cdcb2a8c3b0-master.m3u8https://video.igem.org/videos/embed/qaTddwufnjpuz4eSzegj1U830172023-10-12T14:39:55.887ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/j8GejtnuayFwUnre8NPsWvhttps://video.igem.org/lazy-static/thumbnails/c99d128f-6c70-4ff3-883f-9ceb93ff784a.jpgHKPOLYU: [Cantonese] EP2：NSCLC治療中將面臨的挑戰 (2023) [Chinese]加入我們一起深入探索肺癌世界和尋找治療方法的持續努力。從理解非小細胞肺癌到探索可用的治療選擇，PolYneer的播客節目為這個緊迫問題提供了資訊豐富和富有洞察力的討論。不要錯過這場關於肺癌治療和我們項目為未來帶來更美好希望的重要對話。 旁白：李旻琋 周子晴 編輯：王澤森 周子晴 翻譯：李超穎 李旻琋 周子晴 剪接：李超穎 https://static.igem.org/peertube/streaming-playlists/hls/92d77ea2-0239-47f1-bfa6-d4cfdd92e459/0dc6b840-e685-40d9-b8ae-8d8305e132f5-master.m3u8https://video.igem.org/videos/embed/j8GejtnuayFwUnre8NPsWv343002023-10-12T14:41:19.578ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/eEPkCqthzCFNqhuqrABjbchttps://video.igem.org/lazy-static/thumbnails/68d283f4-232c-4940-a821-8e5419f87073.jpgHKPOLYU: [Cantonese] EP：4 探索非小細胞肺癌治療的有效性和影響 (2023) [Chinese]在這一集我們有幸訪問李兆澄博士，和我們探討及普及非小細胞肺癌的抗藥性的治療方式。本集內容將會深入探討不同的治療方式，以及有效性和局限性。 旁白：李旻琋 周子晴 編輯：Hasin Ishraq 翻譯：李超穎 李旻琋 周子晴 剪接：李超穎https://static.igem.org/peertube/streaming-playlists/hls/6eb23d3a-79c0-4099-bc53-6c6758a2070f/4a5c314d-3dcc-47b2-967a-e99f8189de2b-master.m3u8https://video.igem.org/videos/embed/eEPkCqthzCFNqhuqrABjbc533002023-10-12T14:45:00.353ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/c1TKEGWLcTA3wNbZhX2Fkchttps://video.igem.org/lazy-static/thumbnails/073770b2-daa0-4674-856a-de906f8c3366.jpgDNHS-SanDiego-CA: model6 (2023) [English]DNHS-SanDiego-CA: model6 (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/59346b4a-b3ce-4f8f-827f-7230363096ad/e47dd22f-5121-44aa-b562-66317aeaa34f-master.m3u8https://video.igem.org/videos/embed/c1TKEGWLcTA3wNbZhX2Fkc24032023-10-12T14:42:55.646ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/nyVa5ZDzHzrXD5L4UifH8Ahttps://video.igem.org/lazy-static/thumbnails/7eb30d8e-9c28-4115-aa76-bfbccf7791cf.jpgMcMasterU: title video (2023)we need this header for our homeity pageity https://2023.igem.wiki/mcmasteru/https://static.igem.org/peertube/streaming-playlists/hls/aea878b1-2e10-4f88-8762-196a3de4a7fc/699fbf11-57af-4f51-be15-1b1c34661e00-master.m3u8https://video.igem.org/videos/embed/nyVa5ZDzHzrXD5L4UifH8A704472023-10-12T14:45:22.238ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/cLugwbsq2hwXy8XPM8zjVLhttps://video.igem.org/lazy-static/thumbnails/fd7b5846-6db6-40cf-8e79-747f2942cc67.jpgSCUT-China: Synbio & Sustainable science Exhibition (2023)Since the United Nations released the SDGs (Sustainable Development Goals), synthetic biology has been continuously driving various aspects of global sustainable development. To better promote and make the public more aware of and supportive of synthetic biology and sustainable development, we are planning to create a science exhibition with the theme "Synthetic Biology and Sustainable Development." At the same time, to bring the public, especially the young closer to science and spark their interest in synthetic biology and sustainable development, we have chosen the Guangdong Science Center, the largest science center/technology museum in the world, as our venue. Also, we selected September 30th, a day when there is a surge in visitors due to the Chinese Mid-Autumn Festival and National Day double holiday, to conduct our science communication activities.https://static.igem.org/peertube/streaming-playlists/hls/5f4aabf2-13a7-4be8-9e1f-bf5fd0ae3aae/b1ee535d-62b8-44c5-942f-5cbe209da391-master.m3u8https://video.igem.org/videos/embed/cLugwbsq2hwXy8XPM8zjVL154062023-10-12T14:47:21.227ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ezxDubKKcP34oiNhfnThyzhttps://video.igem.org/lazy-static/thumbnails/51bf3643-b59b-464b-b8d4-dd406761d2a6.jpgUZurich: Interview Andrea (2023) [German]An interview held by Simon from the UZurich iGEM team with Andrea, an endometriosis patient. https://2023.igem.wiki/uzurich/homehttps://static.igem.org/peertube/streaming-playlists/hls/6df5d987-5206-4a9b-850a-8c706ff950a9/ac1b61ae-0783-404a-8032-1d8f35935cfa-master.m3u8https://video.igem.org/videos/embed/ezxDubKKcP34oiNhfnThyz6440152023-10-12T15:02:00.986ZtherapeuticsUZurichendometriosisinterviewYESiGEM 2023 TeamsNOhttps://video.igem.org/w/rDWNjnwJjdbw911mDCxknXhttps://video.igem.org/lazy-static/thumbnails/ccea60dd-3684-45fd-be44-cc991f49661f.jpgSCUT-China: Running! Plasmid (2023) [English]For students specializing in biology and medicine, the term 'plasmid' is a familiar concept. However, for students from various majors, the intricacies of constructing a carrier for the Gene of Interest (GOI) can be perplexing. To bridge this knowledge gap, we initiated an educational activity on our campus, open to students across disciplines. Our aim was to introduce the plasmid combination process in an accessible and engaging mannerintroduce the plasmid combination process in an accessible and engaging manner.https://static.igem.org/peertube/streaming-playlists/hls/cfc0c1bd-f995-4d20-bc67-c57ac64874dd/f0ca97d9-7ae4-4bc9-9b8e-4e607a8e02b9-master.m3u8https://video.igem.org/videos/embed/rDWNjnwJjdbw911mDCxknX2300242023-10-12T15:06:22.724ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/mFgMP5ohQWuxZsitiQc1Tihttps://video.igem.org/lazy-static/thumbnails/c180bc03-c993-4d8e-88ce-6df3d84ce908.jpgHKPOLYU: [Cantonese] EP：6 肺癌治療的新領域 (2023) [Chinese]本集節目我們很榮幸邀請到莫樹錦教授。 莫教授是肺癌生物標記和分子標靶治療領域的專家。 在訪談中，莫教授將與我們分享他對雙特異性抗體在肺癌治療中的專業知識，以及如何維持新藥的安全性和有效性。 所以，不要錯過這個可以獲取專業知識的機會！ 旁白：李旻琋 周子晴 王澤森 編輯：李超穎 翻譯：李旻琋 楊惠梓 葉律怡 剪接：李超穎https://static.igem.org/peertube/streaming-playlists/hls/a77282d5-c39e-4ff9-9c68-b366597a4937/e95af90b-5b3d-4205-a636-44dd69ebc08c-master.m3u8https://video.igem.org/videos/embed/mFgMP5ohQWuxZsitiQc1Ti601082023-10-12T15:09:29.136ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/2Ph9NbfUPVr5Nr7d7S7rDyhttps://video.igem.org/lazy-static/thumbnails/33536a6c-7c95-42a5-8df9-546a580a14f7.jpgHKPOLYU: [Mandarin] EP1: 甚麼是非小細胞肺癌？ (2023) [Chinese]本期節目將為大家介紹一種悄無聲息的疾病。想揭開它的面紗嗎？一起來聽聽我們的分享吧！ 旁白：陳子豪 李苠熙 編輯：王澤森 周子晴 翻譯：李超穎 陳子豪 李苠熙 剪接：李超穎 陳子豪 https://static.igem.org/peertube/streaming-playlists/hls/0eb30cb6-b2f6-4959-9b74-edaea9d7d3d6/64ea4b32-ad30-4a53-a858-1b3a4154b026-master.m3u8https://video.igem.org/videos/embed/2Ph9NbfUPVr5Nr7d7S7rDy377022023-10-12T15:10:15.596ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/7HHvgM9tiRHQp9VKZooLV5https://video.igem.org/lazy-static/thumbnails/8690037c-639c-40a2-811d-646a5048f438.jpgHKPOLYU: [Mandarin] EP：3 檢測非小細胞肺癌的早期症狀並採取行動 (2023) [Chinese]在這一集中，主持人將討論非小細胞肺癌（NSCLC）的診斷和早期檢測，這是最常見的肺癌類型。他們將談論NSCLC的症狀，定期檢查的重要性以及可用的治療選擇。本集強調了早期發現NSCLC的重要性，以提高成功治療的機會。 旁白：陳子豪 李苠熙 編輯：王澤森 周子晴 翻譯：李超穎 陳子豪 李苠熙 剪接：李超穎 陳子豪 https://static.igem.org/peertube/streaming-playlists/hls/3669e79a-b154-4927-82e9-82f9ac9aece6/3ce7dec7-74df-4658-942d-92b3b4bf5d4a-master.m3u8https://video.igem.org/videos/embed/7HHvgM9tiRHQp9VKZooLV5210012023-10-12T15:11:11.119ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/asDcf8N9qsp8gUi6iDKh8Uhttps://video.igem.org/lazy-static/thumbnails/50a8c4e6-015e-42fb-a058-df5b5f7d8822.jpgHKPOLYU: [Mandarin] EP：5 如何診斷肺癌 (2023) [Chinese]在這一集我們有幸訪問臨床腫瘤學家陳心妍醫生，和我們分享如何診斷肺癌，臨床實驗和肺癌的最好治療方案。陳醫生將分享她面對過的癌症真實個案， 還有肺癌的一些標靶療法。 旁白：陳子豪 李苠熙 編輯：王澤森 翻譯：李超穎 楊惠梓 剪接：李超穎https://static.igem.org/peertube/streaming-playlists/hls/4c9a81ea-c5bb-407c-bbe1-b84df87f0b72/2c30bb3a-30f7-457a-941a-f095f337a073-master.m3u8https://video.igem.org/videos/embed/asDcf8N9qsp8gUi6iDKh8U11670172023-10-12T15:17:15.519ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/iM2U7nbA4VGrC4dFYdhXmPhttps://video.igem.org/lazy-static/thumbnails/670ba37b-13ed-45b3-947f-94428c02ee43.jpgABOA-Turku: MercuLess - merciless fight against mercury (2023) - Team Presentation [English]**Title:** MercuLess - merciless fight against mercury **Description:** There is a high possibility that methylmercury is inside you. It bioaccumulates through food chains gathering up in organisms near the top: fish, seals and us humans. Methylmercury is toxic due to its affinity to sulfhydryl groups, which bind to proteins and disturb their functions. This causes health risks, such as neurological and fertility problems, in organisms. We, team ABOA, are fighting this with our friend Synechocystis. Synechocystis is a cyanobacterium that uses light and carbon dioxide as its energy thus it is a unique sustainable solution. With synthetic biology we are enhancing the capture of the methylmercury from waters and then we gather it up safely. This is achieved by expressing merB protein that cuts the bond between methyl and mercury and merA protein reduces the ionic form to elemental mercury. We are fighting to ensure clean habitats, ecological balances and the safe use of fish for us all. [Wiki](https://2022.igem.wiki/aboa-turku)https://static.igem.org/peertube/streaming-playlists/hls/8ff4ff30-14ee-4a7f-96a0-8d2e37b22273/f00d6a7d-83a6-44b8-b007-05437724a611-master.m3u8https://video.igem.org/videos/embed/iM2U7nbA4VGrC4dFYdhXmP8850322023-10-16T23:08:07.327ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vZVaur2dLJJnWvmco8y4eMhttps://video.igem.org/lazy-static/thumbnails/6f39fc0c-a4fc-43cd-a75e-2779aa0985e3.jpgKUAS-SEOUL: Capture Cervical Cancer with CEApture (2023) - Team Presentation [English]**Title:** Capture Cervical Cancer with CEApture **Description:** Our team aimed to develop a user-friendly cervical cancer testing kit, with a particular focus on facilitating early diagnosis. Sanitary pad integrated with a biosensor for routine cervical cancer screening was designed. We diagnose cervical cancer using biomarker, CEA, that can be identified by aptamer N56. CEApture shows how our biosensor works, in which the Aptamer captures the CEA protein. Through experiments and computational analysis, clinical viability of the CEA protein and N56 aptamer binding characteristics for application in an LFA sensor was evaluated. This project takes an initiative to the United Nations' Sustainable Development Goals (SDGs), particularly in promoting good health and well-being (SDG 3) and advancing gender equality (SDG 5) on a global scale. [Wiki](https://2022.igem.wiki/kuas-seoul)https://static.igem.org/peertube/streaming-playlists/hls/f2ef2de5-1adf-4daf-9d0c-62ea02495a7b/459b26e8-ff35-4338-9afd-0c36095cfc5b-master.m3u8https://video.igem.org/videos/embed/vZVaur2dLJJnWvmco8y4eM8690342023-10-16T23:01:52.517ZYES2023 Team PresentationsNOhttps://video.igem.org/w/axwcSCbgs5tD3UkEm4t7eQhttps://video.igem.org/lazy-static/thumbnails/8145adcf-6d22-449c-bb64-35323c281054.jpgSaint-Joseph: Behcheck (2023) - Team Presentation [English]**Title:** Behcheck **Description:** Behcheck is a Lateral Flow Assay Test Kit for the presence of HLA-B27 protein. Studies show that this protein variation remains the most important genetic factor for Beh et s Disease. Furthermore, this specific factor has the highest relation rate among non-phenotypic factors (determined by pathergy tests). [Wiki](https://2022.igem.wiki/saint-joseph)https://static.igem.org/peertube/streaming-playlists/hls/4d48eb4b-7322-48c4-a99f-18d6398014e2/6f91f56a-8843-49a5-9c5d-c96bf9b5787a-master.m3u8https://video.igem.org/videos/embed/axwcSCbgs5tD3UkEm4t7eQ8960222023-10-16T23:11:09.749ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mJ5gBGZKTJbka78JmBMrSNhttps://video.igem.org/lazy-static/thumbnails/5a7e26f4-707d-4cd4-a25f-dbc9d84a1d55.jpgNanjing-NFLS: Joint Guardian (2023) - Team Presentation [English]**Title:** Joint Guardian **Description:** Osteoarthiritis and Obesity are two major health problems prevalent in our society nowadays. Obesity increases the risk of OA in both weight-bearing (knee) and non-weight-bearing (hand) joints, and obesity doubles the lifetime risk of OA. An efficient new therapeutic target for osteoarthritis related obesity is of urgent need. Adipose tissue can secrete more exosomes in the obese condition, which have been reported to play an important role in inter-organ communication and regulate the functions of joints. Micro-RNA, a small non-coding RNA, is an important component of exosomes that function as guide molecules in RNA silencing. Our project utilizes TargetScan software and luciferase reporter plasmid to validate its target gene in the obese exosomal micro-RNA. The inhibition of the highly expressed adipocyte exosomal micro-RNA can greatly reduce its harm on the joint and be an ideal way for anti-Obesity and joint guardian. [Wiki](https://2022.igem.wiki/nanjing-nfls)https://static.igem.org/peertube/streaming-playlists/hls/a7d6a47e-1db8-4197-8c29-ddc049efa2be/8c58b61d-f600-4b05-93d2-bb6a5cf1d070-master.m3u8https://video.igem.org/videos/embed/mJ5gBGZKTJbka78JmBMrSN7890242023-10-17T00:51:49.271ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5oyjjdrQXytsdc1xLrUHV7https://video.igem.org/lazy-static/thumbnails/46bf6a7f-535e-44b3-a8eb-89f50f72d04f.jpgSubCat-Peking: Novel blue light-dependent 'Switch' (2023) - Team Presentation [English]**Title:** Novel blue light-dependent 'Switch' **Description:** Optogenetics was achieved for the biosynthetic process's control and extended to cancer treatment development. CRY2/CIB1 interactions are the most common blue light-dependent interaction. In this experiment, we aim to improve this method and hopefully, it will contribute to improving cancer treatment. We construct a new interaction by attaching protein GFP on preexisting interactions called CRY2/SPA1 using the construction of recombinant plasmid and yeast mating. The further interaction we made is called CRY2(GFP)/SPA1. Later, we used beta-galactosidase to test and compare the strength and sensitivity with CRY2/CIB1. For further development, the new blue light-dependent interaction can be applied to a novel cancer technique: CAR-T. By importing the new interaction to CAR-T, doctors can control the activity of the T cell by simply turning off and on the blue light. We believe the little blue light could progress considerably by inventing this unique interaction. [Wiki](https://2022.igem.wiki/subcat-peking)https://static.igem.org/peertube/streaming-playlists/hls/238ad537-3fad-460d-845b-41c5649219bc/df09e1b0-88a3-469d-8bb7-40752420885b-master.m3u8https://video.igem.org/videos/embed/5oyjjdrQXytsdc1xLrUHV78940152023-10-17T02:58:56.932ZYES2023 Team PresentationsNOhttps://video.igem.org/w/esbcSaQbPeFtFCfX8eacENhttps://video.igem.org/lazy-static/thumbnails/a3f7f1b1-6bc1-419b-aeff-c211758a601c.jpgUBC-Vancouver: PILOT: Platformed Inteins: A linked orthogonal toolkit (2023) - Team Presentation ...**Title:** PILOT: Platformed Inteins: A linked orthogonal toolkit **Description:** Protein-based therapeutics have been approved for clinical use due to their unique structural and functional properties. However, high throughput production of novel therapeutic proteins is hindered by cellular cytotoxicity and resource intensity of conventional manufacturing methods, entailing slow turnaround times. Synthetic biology technologies have emerged to eliminate such barriers to whole-cell protein production in vitro by harnessing cell-free protein synthesis (CFPS). A modular, intein-mediated biosynthesis platform technology was engineered to be an accessible and cost-effective tool for advancing scientific investigation. Included is an inducible intein coupled with a self-aggregating solubility tag enabling simultaneous, multisubunit peptide assembly, and traceless protein purification for expression in a Vibrio natriegens derived cell lysate. Designed as a multifunctional platform, this intein-CFPS system proves to be highly orthogonal and facilitates efficient protein synthesis. Ultimately, this technology aims to reinforce the applicability of foundational principles in synthetic biology. [Wiki](https://2022.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/6cee6dec-6d31-42e8-a42f-3ae5f5887eae/3d9aeab6-9aea-4528-9046-3e6ece97a503-master.m3u8https://video.igem.org/videos/embed/esbcSaQbPeFtFCfX8eacEN9000442023-10-17T06:14:11.404ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vMnQXiMMwyoaPrVBV9n7hFhttps://video.igem.org/lazy-static/thumbnails/e609dec1-3708-42b6-8a99-f8853ea7dec7.jpgYangzhouNOFLS: Paclisa: Development of PTX-ADC Elisa Kit (2023) - Team Presentation [English]**Title:** Paclisa: Development of PTX-ADC Elisa Kit **Description:** Our product is a monoclonal antibody for the detection of PTX in combination with an ELISA for the quantitative detection of small molecule PTX levels, with the goal of effectively supporting clinical studies for the development of ADC anticancer drugs. Moreover, we hope this product can offer more treatment possibilities for hard-to-treat cancers. [Wiki](https://2022.igem.wiki/yangzhounofls)https://static.igem.org/peertube/streaming-playlists/hls/f12ef3e0-d834-480d-b96e-aaf17512b4c7/08cc53cb-f121-4124-b679-980ff24df32f-master.m3u8https://video.igem.org/videos/embed/vMnQXiMMwyoaPrVBV9n7hF8970152023-10-17T06:20:31.333ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rCho8FWebFLNcACKE3wqHVhttps://video.igem.org/lazy-static/thumbnails/9e516d43-b970-4a72-8840-329c5820837e.jpgShanghai-HS: Development of an optogenetics tool to accelerate CRY2/CIB1 switch ... (2023) - Team...**Title:** Development of an optogenetics tool to accelerate CRY2/CIB1 switch off process for diabetes treatment **Description:** Diabetes, a prevalent endocrine disorder, is characterized by impaired insulin release and sustained high blood sugar levels. Optogenetic tools, such as the blue-light dependent CRY2/CIB1 switch, have shown promise in disease treatment, enabling noninvasive control of biological processes with precise spatiotemporal resolution. In this study, we combined UVR8, a UVB receptor found in plants, with the recently discovered blue-light inhibitors of cryptochromes BIC2 to create the UVR8N-BIC2 fusion protein. Through experiments testing -galactosidase activity in a yeast two-hybrid system, we confirmed the potential of accelerating the CRY2/CIB1 switch off in the presence of UVB light. In the future our synthetic biology approach holds promise for improving the speed of light-controlled 'off' switches in major diseases like cancer, diabetes, and neurological disorders. [Wiki](https://2022.igem.wiki/shanghai-hs)https://static.igem.org/peertube/streaming-playlists/hls/cf855675-eca7-48b1-81ba-8e4cae3c342f/c94aa08b-9c56-4a62-8489-abbb70cb9594-master.m3u8https://video.igem.org/videos/embed/rCho8FWebFLNcACKE3wqHV8960252023-10-17T07:52:36.925ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2KkpcPz9yvATTmVCruf4wghttps://video.igem.org/lazy-static/thumbnails/a983f888-0867-4746-b26a-7871d3fff1c9.jpgULC: NATWORK: An 'Accelerator' for Nucleic Acid Test (2023) - Team Presentation [English]**Title:** NATWORK: An 'Accelerator' for Nucleic Acid Test **Description:** Hi, we are NATWORK from Ulink Shanghai. By using the most recent technology, we developed a phosphorothioated DNA-dependent restriction endonuclease and studied its binding and cutting mechanisms, thereby applying this technique to nucleic acid detection. With the logic understood, we are able to apply point-of-care testing to newly sampled DNA segments, thereby reducing the complex procedure applied to DNA samples, and reducing the time required for testing. [Wiki](https://2022.igem.wiki/ulc)https://static.igem.org/peertube/streaming-playlists/hls/0e261394-8746-4b9b-8878-1f1e488de257/a0cb7b85-216a-446f-b712-93d0820804b1-master.m3u8https://video.igem.org/videos/embed/2KkpcPz9yvATTmVCruf4wg8990242023-10-17T07:57:53.604ZYES2023 Team PresentationsNOhttps://video.igem.org/w/h7CfME6BtyiqADWMSCoL2Nhttps://video.igem.org/lazy-static/thumbnails/ff0a1e95-f170-434d-9729-58291e3a62b4.jpgSubCat-China: Construction of autocrine amylase and glucoamylase Saccharomyces c... (2023) - Team...**Title:** Construction of autocrine amylase and glucoamylase Saccharomyces cerevisiae cell factory **Description:** At present, fermented alcohol is mostly made from corn, which is hydrolyzed into glucose by -amylase and glucoamylase for fermentation by Saccharomyces cerevisiae. Among them, -amylase and glucoamylase need to be added exogenously. It is estimated that the cost of an enzyme for producing per ton of alcohol is 100 yuan. If Saccharomyces cerevisiae can autocrine -amylase and glucoamylase, it will reduce the addition of exogenous enzymes and save the cost of enzymes. In this study, -amylase and glucoamylase were optimized, and multiple copies were integrated into the chromosome of Saccharomyces cerevisiae, following the starch degradation ability of the above strains was tested. The alcohol production ability of the strain fermented sweet potato residue raw starch was tested, and finally, the Saccharomyces cerevisiae strain secreting -amylase and glucoamylase was obtained to achieve the goal of saving enzyme dosage. [Wiki](https://2022.igem.wiki/subcat-china)https://static.igem.org/peertube/streaming-playlists/hls/827f062a-99f4-4dfc-943f-29826208e2c8/2f81b036-cfe9-4789-a3c2-49b21dc78f44-master.m3u8https://video.igem.org/videos/embed/h7CfME6BtyiqADWMSCoL2N8560162023-10-17T08:44:15.057ZYES2023 Team PresentationsNOhttps://video.igem.org/w/akat2NCahPk1fhq5gStV1Yhttps://video.igem.org/lazy-static/thumbnails/ad63506b-c33a-4968-a52a-164237c05525.jpgSHSID-China: E. cool-i: Temperature-based Kill Switch For Engineered Bacteria (2023) - Team Prese...**Title:** E. cool-i: Temperature-based Kill Switch For Engineered Bacteria **Description:** Our team, E. cool-i, designed and developed a plasmid kill switch test kit based on temperature to control the growth of engineering bacteria and limit environmental pollution. We conducted surveys and interviewed experts working within the field of bioengineering to understand the impact of our product. Lastly, our team set out to educate the public about microbes through offline lectures, articles, comics, and games. [Wiki](https://2022.igem.wiki/shsid-china)https://static.igem.org/peertube/streaming-playlists/hls/4b8f3696-69bb-493b-9ca4-2a7080828564/924d9bb7-87a3-4623-bf67-53130cbf5651-master.m3u8https://video.igem.org/videos/embed/akat2NCahPk1fhq5gStV1Y8770292023-10-17T09:17:38.250ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1xY1yKQ4stS7mXvjNUMAXVhttps://video.igem.org/lazy-static/thumbnails/8be5c5a4-ec08-4637-924a-d04cdb8b1e85.jpgMetropolis-Shanghai: Development of anti-Alzheimer's drugs targeting 2A adrenerg... (2023) - Team...**Title:** Development of anti-Alzheimer's drugs targeting 2A adrenergic receptors **Description:** Alzheimer's disease is a disorder that causes degeneration of the cells in the brain and it is the main cause of dementia, which is characterized by a decline in thinking and independence in personal daily activities. Alzheimer's disease, the commonest cause of dementia, is a growing global health concern with huge implications for individuals and society. For these reasons, we set up Alzheimer's Assistance (AAA) in order to make a contribution to solving Alzheimer's disease. We designed a series of gene experiments related to 2A-AR protein synthesis screened for proteins that affect 2A-AR transport within cells, and used the RUSH-BRET method to detect whether these proteins can affect 2A-AR transport, further detecting whether these proteins are related to Alzheimer's disease and discovering new targets for the development of anti-Alzheimer's disease drugs, which is to find a direction for developing Alzheimer's disease treatment. [Wiki](https://2022.igem.wiki/metropolis-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/047692f8-03eb-428e-9570-19b4eb65067b/cc9ec67d-f98b-4c54-be9c-db45e9aff2b5-master.m3u8https://video.igem.org/videos/embed/1xY1yKQ4stS7mXvjNUMAXV8960352023-10-17T10:29:04.194ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5QEzQPkktEPKL2JsANvwfFhttps://video.igem.org/lazy-static/thumbnails/db870fe8-2c97-4c88-909d-bb16e54f602d.jpgHBUT-China: Metabolic design of Corynebacterium glutamicum by CRISPR-MAD7 for ly... (2023) - Team...**Title:** Metabolic design of Corynebacterium glutamicum by CRISPR-MAD7 for lycopene production using glucose from straw **Description:** Lycopene is a carotenoid pigment found abundantly in various fruits and vegetables, particularly in tomatoes. In addition to its role as a natural pigment, lycopene has gained increasing recognition for its potential applications in functional foods, pharmaceuticals, and cosmetics. C. glutamicum is an excellent platform organism for white biotechnology with its advantageous traits, such as rapid growth, genetic stability, well-studied genetic background for recombinant engineering, which make it a superior choice to produce lycopene. CRISPR-Cas12 gene editing technology was constructed and developed, so that C. glutamicum could express lycopene with high quantities that we needed. Crop straw is an attractive lignocellulosic material since it is one of the most abundant renewable resources. By pretreatment and enzymatic hydrolysis, crop straw can produce glucose to provide the carbon source for growth of C. glutamicum. [Wiki](https://2022.igem.wiki/hbut-china)https://static.igem.org/peertube/streaming-playlists/hls/27300894-44b5-4481-967c-4349f285f4b3/35fb100a-428b-4a8b-9fbc-b500288beea2-master.m3u8https://video.igem.org/videos/embed/5QEzQPkktEPKL2JsANvwfF8950492023-10-17T13:43:51.200ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hxuycs7kHA2jP8wHvhqzUmhttps://video.igem.org/lazy-static/thumbnails/97efdd98-83dd-4da2-8578-25a7f9d0f7ce.jpgSCU-BSE-China: YEAST PATRONUS: Polyamines Assist TheRmO and NatUral Support (2023) - Team Present...**Title:** YEAST PATRONUS: Polyamines Assist TheRmO and NatUral Support **Description:** Biomanufacturing, characterized by its green and efficient features, is poised to be the future production method to replace traditional chemical manufacturing. Yeast cell factory has been widely applied in practical production. However, multiple stress challenges(such as high temperature and extreme pH environments) during the fermentation process significantly reduce its availability. Enhancing its tolerance can substantially reduce production costs and energy consumption, expanding the application scope of yeast cell factories. Polyamines, a class of widely distributed organic compounds derived from primary metabolic pathways, are associated with many stress-related phenotypes. Inspired by the relationship between polyamines and stress tolerance in plants and extremophiles, in YEAST PATRONUS, we utilized polyamine metabolism to construct a thermotolerant yeast cell factory. This involved various methods, including exogenous addition, endogenous expression, and exogenous expression, to validate our hypothesis. We achieved the production of various polyamines and conducted a preliminary evaluation of their thermo-tolerance capabilities. [Wiki](https://2022.igem.wiki/scu-bse-china)https://static.igem.org/peertube/streaming-playlists/hls/85f7df86-ee4c-47a0-b16b-5e3b51932da0/d66dd59b-f4f7-4ddd-990c-ffd2df209782-master.m3u8https://video.igem.org/videos/embed/hxuycs7kHA2jP8wHvhqzUm7950122023-10-17T14:11:34.384ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7DGjzuVQSCZQG7TPWqXQ8Ghttps://video.igem.org/lazy-static/thumbnails/da4c2a4a-daa0-4a20-aac6-cb34bc51dc90.jpgHK-Joint-School: Antimicrobial Black Soldier Fly Ecoplaster (2023) - Team Presentation [English]**Title:** Antimicrobial Black Soldier Fly Ecoplaster **Description:** Our project aims to develop a disinfectant hydrogel plaster with a long-lasting sterilizing effect. We address the challenges posed by bacterial infections, which account for a significant global health burden and are the second leading cause of death worldwide. We have chosen to synthesize the antimicrobial peptides (AMPs). By incorporating sustainable materials and addressing the limitations of current sterilization methods, our project aims to make a meaningful contribution to combating bacterial infections while minimizing environmental impact. Our research involved the design of a plasmid containing seven AMPs, which were ligated with the pET plasmid. Also, we focused on the production of a biodegradable chitinous hydrogel from Black Soldier Fly shell. This hydrogel exhibits antibacterial properties due to the presence of AMPs and is non-allergic. By combining innovative approaches, sustainable materials, and the natural antimicrobial properties, our project aims to provide an effective solution for wound sterilization while minimizing environmental impact. [Wiki](https://2022.igem.wiki/hk-joint-school)https://static.igem.org/peertube/streaming-playlists/hls/35da3320-d008-4728-b783-2eaf9e1a3b96/2d84143b-c658-414e-bdb1-76ebb105271f-master.m3u8https://video.igem.org/videos/embed/7DGjzuVQSCZQG7TPWqXQ8G8180892023-10-17T15:01:53.633ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4oV4jd8EBU214hu9ARBb1mhttps://video.igem.org/lazy-static/thumbnails/9f597c21-93b4-4bf3-a044-671fb2cf9187.jpgBJHS: Covid-19 Recombinant Protein Vaccine (2023) - Team Presentation [English]**Title:** Covid-19 Recombinant Protein Vaccine **Description:** The current market for COVID-19 treatments is largely dependent on vaccinations and antiviral drugs. The most commonly used vaccination inactivated vaccines and adenovirus vector vaccines. The recombinant protein vaccine we produced is a method of expressing specific proteins in cells using recombinant DNA technology. Compared with traditional inactivated vaccines, recombinant protein vaccines are safer. In the experiment, we used 4 variant strands including Wuhan, Delta, BQ1.1, and XBB.1.5. We combined the DNA of variant strands and pET28a (empty vector) through T4 DNA enzyme ligation to form a recombinant plasmid with a receptor binding domain. We obtained RBD protein by Ni-sepharose purification and then detected the binding ability of the protein to human ACE2 protein by ELISA. We aim to produce a recombinant protein vaccine with S protein as an antigen in E. coli and evaluate its potential as an antigen. [Wiki](https://2022.igem.wiki/bjhs)https://static.igem.org/peertube/streaming-playlists/hls/1b7e79fe-afdb-4543-8837-21b27ee89444/6426981a-6479-47b3-bd5c-29cc1af1b9a0-master.m3u8https://video.igem.org/videos/embed/4oV4jd8EBU214hu9ARBb1m8930122023-10-17T15:12:24.309ZYES2023 Team PresentationsNOhttps://video.igem.org/w/sjBPuoqKqf7RmTNVFxNiMQhttps://video.igem.org/lazy-static/thumbnails/5ea0baf4-9772-4618-972a-986c838cc5cd.jpgThinker-Shenzhen: Revolutionizing Agriculture: Genetic Engineering for Sustainab... (2023) - Team...**Title:** Revolutionizing Agriculture: Genetic Engineering for Sustainable Alginate Oligosaccharide Biofertilizers from Algae **Description:** Our project, inspired by previous iGEM teams, addresses eutrophication's environmental impact on rivers and oceans. Eutrophication, driven by excessive algae growth, harms ecosystems by depleting oxygen levels through photosynthesis. Typical treatments discard excess algae, creating waste. Our research presents a sustainable solution: converting algae waste into valuable alginate oligosaccharide biofertilizers. Traditional degradation methods face drawbacks like environmental pollution and energy consumption. To overcome these challenges, we employ genetic engineering to express alginate lyase, key enzyme for alginate degradation. We combine it with cellulase to enhance efficiency and solubility, ensuring thorough degradation while prioritizing sustainability. For biosafety, we introduce a lysis gene to break down E. coli cells used in genetic engineering, ensuring biosafety during alginate degradation. Alginate oligosaccharides bolster crop stress resistance, promote growth, enhance quality, and increase yields, offering sustainable agriculture benefits. Our gene circuit's arabinose-inducible promoter allows controlled gene expression, ensuring both innovation and responsibility in our approach. [Wiki](https://2022.igem.wiki/thinker-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/d527112f-608c-4619-86d9-93d6808a1a86/eb631472-226a-4649-8521-4e602fc6e45a-master.m3u8https://video.igem.org/videos/embed/sjBPuoqKqf7RmTNVFxNiMQ9000352023-10-17T15:59:14.089ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hGn2KiDSHJKfpxudZuN1LThttps://video.igem.org/lazy-static/thumbnails/9aa27f1e-7971-4640-b74d-daab11be9156.jpgXHD-WuHan-China: Biosensor technology applied to innovative solutions for p-cres... (2023) - Team...**Title:** Biosensor technology applied to innovative solutions for p-cresol monitoring **Description:** In industrial production, the monitoring of cresol contamination has always been an important issue. Traditional chemical and physical methods, while accurate, have cost and operational limitations, so many plants choose not to monitor cresol. To address this challenge, new biosensor technologies have emerged. We took advantage of the high sensitivity and specificity of biomolecules to modify E. coli, and combined with the design of the color development module and the cutting module, we can quickly monitor the cresol concentration on site and continuously monitor the cresol concentration in real time. When cresol is not present in the environment, the solution is colorless; when cresol is present, the solution is pink, and the color depth is positively related to the concentration. This innovative solution promises to more effectively protect worker health and environmental sustainability. [Wiki](https://2022.igem.wiki/xhd-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/8734edfc-1d6a-4b19-9658-6449a111b1bb/3283c598-04cb-4324-b990-4bfe26e2e904-master.m3u8https://video.igem.org/videos/embed/hGn2KiDSHJKfpxudZuN1LT8970372023-10-17T17:12:39.040ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8B5dgBUySpDUBmHEVJg8Gdhttps://video.igem.org/lazy-static/thumbnails/349091c0-6422-400c-8ac1-cf76fc980418.jpgULaval: Blood Cell Barber Shop: An enzymatic treatment for universal blood donat... (2023) - Team...**Title:** Blood Cell Barber Shop: An enzymatic treatment for universal blood donations **Description:** Blood donations are critically needed to help patients suffering from various illnesses or accidents. Blood banks face persistent supply challenges for specific blood types needed by vulnerable patients. Our project aims at making universal blood (O-) to help supply blood donations for people with uncommon blood types by removing blood cells antigens. We innovate on past enzymatic antigen removal treatments by optimizing an A and B-cleaving enzyme system, resulting in O-type blood. In particular, our proposed system for type A antigen removal utilizes a bipartite reaction, not requiring additional cofactors and matrix. Additionally, we produced the first full 3D structure of the Rh antigen complex that includes the RhD subunit, the most immunogenic one. Our extensive in silico modeling also includes fluid dynamics for our proposed implementation. [Wiki](https://2022.igem.wiki/ulaval)https://static.igem.org/peertube/streaming-playlists/hls/3d959918-0f92-480d-95b9-ec8f555e9230/adef99da-8d08-4781-8a97-8c0169747c47-master.m3u8https://video.igem.org/videos/embed/8B5dgBUySpDUBmHEVJg8Gd8500162023-10-17T18:32:54.163ZYES2023 Team PresentationsNOhttps://video.igem.org/w/t2eDvXPmUyLkgCXrB85nn7https://video.igem.org/lazy-static/thumbnails/305e220e-a52e-414b-8388-399b35d40192.jpgUVU-Utah: Bloom-B-Gone: Preventing Utah Lake Cyanobacterial Blooms by Phosphorou... (2023) - Team...**Title:** Bloom-B-Gone: Preventing Utah Lake Cyanobacterial Blooms by Phosphorous and Nitrogen Sequestration **Description:** We chose to focus on bioremediation of Utah Lake because, not only is it a local issue, it is also used worldwide as an example of cyanobacterial blooms. Excess nutrient loading in Utah Lake is causing increased eutrophication, which leads to increased cyanobacterial blooms that produce toxins hazardous to human, animal, and aquatic life. The excess nutrients are composed mostly of nitrogen and phosphorous compounds that enter the lake primarily from wastewater treatment plants, runoff fertilizer, and naturally occurring within inorganic environmental resources. Our goal is to reduce the nutrient load of wastewater entering the lake by engineering a harmless organism to sequester phosphorus and convert nitrogenous compounds to atmospheric nitrogen, which is biologically inert. We chose the microalgae Chlamydomonas reinhardtii as the chassis for the genetically engineered machine. A second, long-term goal would be to turn the sequestered nutrients into a marketable product. [Wiki](https://2022.igem.wiki/uvu-utah)https://static.igem.org/peertube/streaming-playlists/hls/dad2e5d3-1899-488b-893f-08b6f8fc456c/13fadc33-181b-41f3-97b8-ba5c49ef2e19-master.m3u8https://video.igem.org/videos/embed/t2eDvXPmUyLkgCXrB85nn77700282023-10-17T20:26:11.231ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4SKXH2f83BPMzvYw7ocVSxhttps://video.igem.org/lazy-static/thumbnails/b75ff4b1-87e8-4cae-ae65-a5c0a62c2c7b.jpgUAlberta: Project FEDDS: Developing an Integrated Fluorescence Detection System ... (2023) - Team...**Title:** Project FEDDS: Developing an Integrated Fluorescence Detection System for Fungal Pathogens in Crop Fields **Description:** Fungal pathogens pose a significant threat to the agricultural industry causing extensive damage and crop loss. Fungi belonging to the Fusarium genus, known for its induction of 'Fusarium Head Blight' (FHB) in cereal crops, cause severe crop damage and secrete mycotoxins. Current detection methods of Fusarium are lacking as they are time-consuming and require trained laboratory technicians. Our team aims to develop an early warning system for Fusarium infection using antigen binding-dependent fluorescent protein constructs. Upon binding to infected plants, this construct will interact with Fusarium producing fluorescence. The resulting red emission will be detectable with our automated drone system. This detection system incorporates AI and drone technology, to scan a field and map the fluorescent emission from our construct where infection is present. The objective of Project FEDDS is to develop an effective and efficient fungal pathogen detection method to reduce their adverse effects on the agricultural industry. [Wiki](https://2022.igem.wiki/ualberta)https://static.igem.org/peertube/streaming-playlists/hls/1f61b232-722a-428b-9684-e8c4b193bf3f/ae691430-4712-4dfa-aa4f-fc11c358065b-master.m3u8https://video.igem.org/videos/embed/4SKXH2f83BPMzvYw7ocVSx7070142023-10-18T01:55:50.474ZYES2023 Team PresentationsNOhttps://video.igem.org/w/eNt8Lh5uuCuucxj6tGWmUfhttps://video.igem.org/lazy-static/thumbnails/9af37c84-1966-4e18-9ef5-62e4535fe2b9.jpgYiYe-China: miRNA Sensor based on LncRNA MALAT1 for diagnosis of cervical cancer (2023) - Team Pr...**Title:** miRNA Sensor based on LncRNA MALAT1 for diagnosis of cervical cancer **Description:** Cervical cancer is the fourth most common cancer among women globally. Peppers plasmid is a newly developed tool that can be used for real-time, high-throughput quantification and even visualize the location of RNA in live cells. Noncoding RNAs (ncRNAs), including miRNA and lncRNA, modulate a wide array of growth and differentiation processes and become potential diagnostic biomarkers in cervical cancer. Metastasis-associated lung adenocarcinoma transcript 1 (MALAT1) has been reported to be upregulated in cervical cancer tissues and work as miRNA sponges through binding to specific miRNAs. Previous studies indicated lots of miRNAs downregualted in cervical cancer could bind to MALAT1, for example, miR-203-3p, miR-22-3p, miR-429, miR-152-3p, and miR-145-5p. Therefore, we will clone the specific miRNA binding sequence from MALAT1 into pepper plasmid, which can monitor the change of miRNAs in cervical cancer.This system will offer a promising approach for early diagnosis of cervical cancer by measuring fluorescence activity. [Wiki](https://2022.igem.wiki/yiye-china)https://static.igem.org/peertube/streaming-playlists/hls/6fc3bce2-6f2f-404f-8aea-b08f98d012b6/9624ec0f-047c-4a10-b7a1-ec671c387e30-master.m3u8https://video.igem.org/videos/embed/eNt8Lh5uuCuucxj6tGWmUf8920182023-10-18T02:12:27.999ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wKdtp7VwKC575Mka5pRWBthttps://video.igem.org/lazy-static/thumbnails/3bf90700-7d78-4bbf-b337-4168d3f7f6a4.jpgBZK: Gout 'Firefighter' - Probiotics (2023) - Team Presentation [English]**Title:** Gout 'Firefighter' - Probiotics **Description:** Uric acid is a waste product of the metabolism of purines in the food, most of the uric acid is excreted through liver. However, if the body is unable to efficiently excrete uric acid, uric acid level will rise, forming urate crystal and deposit in the joints and surrounding soft tissue, causing a painful and inflammatory response that lead to joint pain, and swelling. Some animals use urate oxidase to catalyze the conversion of uric acid into allantoin, which helps reduce the accumulation of uric acid in the body. Therefore, this project uses probiotics to express enzymes such as urate oxidase to degrade excess uric acid in the body, thereby reducing the risk of gout. Compare with the current treatment, probiotics therapy can better avoid the shortcomings of traditional treatment. [Wiki](https://2022.igem.wiki/bzk)https://static.igem.org/peertube/streaming-playlists/hls/f8fad40b-028c-486a-a00f-d2e9199bdef9/8c284b99-186c-46ad-9fe7-5f779d29609b-master.m3u8https://video.igem.org/videos/embed/wKdtp7VwKC575Mka5pRWBt8860172023-10-18T02:44:21.734ZYES2023 Team PresentationsNOhttps://video.igem.org/w/nWdG42AheGTUudUroXdr1Zhttps://video.igem.org/lazy-static/thumbnails/62a5d521-f696-4774-915b-a732aa0c575a.jpgShanghai-city: Marvelous Journey of Levan, Unveiling the Magic of Health (2023) - Team Presentati...**Title:** Marvelous Journey of Levan, Unveiling the Magic of Health **Description:** Our company, Levan Health, specializes in creating health products using environmentally friendly materials. With a mission to enhance the production of healthcare products, we are dedicated to crafting sustainable solutions for the well-being of our customers. Through careful sourcing and innovative processes, our products not only promote personal health but also contribute to a greener future. Join us in embracing a healthier lifestyle while reducing our ecological footprint. [Wiki](https://2022.igem.wiki/shanghai-city)https://static.igem.org/peertube/streaming-playlists/hls/b1a1e572-18ea-4da9-9790-9b4ee75ff70d/f03cf0f0-46cf-4964-9023-058e664665a5-master.m3u8https://video.igem.org/videos/embed/nWdG42AheGTUudUroXdr1Z8990222023-10-18T05:35:07.177ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8i1puEZsjXfX6uazNivcsnhttps://video.igem.org/lazy-static/thumbnails/bf4b7b76-115d-478c-9225-e3a076703b1d.jpgPINGHE: Cosmetic Bacterial Rapid Test Kit (2023) - Team Presentation [English]**Title:** Cosmetic Bacterial Rapid Test Kit **Description:** Our project has developed a novel bacterial detection method that leverages existing gene editing technology. Specifically, we have designed a rapid bacterial test kit for cosmetics. Our motivation for creating this product stems from the issue that individuals often encounter when using cosmetics in their daily lives, particularly with bacteria such as Staphylococcus aureus and Pseudomonas aeruginosa. To address this challenge, we have designed a detection kit for Staphylococcus aureus and Pseudomonas aeruginosa in cosmetics based on CRSPR/ Cas12a gene editing technology, which can be used to rapidly detect the presence of these bacteria. [Wiki](https://2022.igem.wiki/pinghe)https://static.igem.org/peertube/streaming-playlists/hls/3b0fdd45-cbc0-4865-a3a0-b667fe50149d/8e4a4c60-04e8-4cec-9617-5ae03180e22a-master.m3u8https://video.igem.org/videos/embed/8i1puEZsjXfX6uazNivcsn8980122023-10-18T06:51:09.795ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4WYXBeB6UPS4wu2bnguUazhttps://video.igem.org/lazy-static/thumbnails/219b1b87-d417-4322-8607-81aee49e8e61.jpgTSB-Center: The research and development of the monkeypox drug testing kits (2023) - Team Present...**Title:** The research and development of the monkeypox drug testing kits **Description:** Nowadays, many countries and people face the problem of monkeypox. Monkeypox is a zoonotic disease caused by a virus. The pathogen is transmitted from animals to humans. Early symptoms of monkeypox infection include fever, headache, muscle pain, swollen lymph nodes, and tiredness, followed by a blister-like rash. Currently, there is still no effective vaccine or medication to suppress monkeypox. Under this circumstance, our team construct a drug innovation screening platform targeting monkeypox I7L protease, in order to test whether drugs or vaccines are effective. In the future, this kit can be used to more conveniently detect developed drugs or vaccines. [Wiki](https://2022.igem.wiki/tsb-center)https://static.igem.org/peertube/streaming-playlists/hls/1ff8ae7f-bf45-46c1-8dd3-8f893e7c90eb/21c19875-cd48-4045-bb4d-8f3eb615b801-master.m3u8https://video.igem.org/videos/embed/4WYXBeB6UPS4wu2bnguUaz8500132023-10-18T09:09:51.171ZYES2023 Team PresentationsNOhttps://video.igem.org/w/m1bWWve87iTxa8Uf5ETNQfhttps://video.igem.org/lazy-static/thumbnails/9418f13e-924e-4e3b-97b5-5327e9663442.jpgTechnion-Israel: UTDIE game preview (2023)UTDIE video game preview. https://2023.igem.wiki/technion-israelhttps://static.igem.org/peertube/streaming-playlists/hls/a1fd8509-5ba6-4570-af42-c85a806d12be/3c1e10cd-b6fd-48e0-8226-e25f05ac9a5d-master.m3u8https://video.igem.org/videos/embed/m1bWWve87iTxa8Uf5ETNQf13042023-10-18T09:07:24.061ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/o3g1v6tSZkQGJa7GaH7akUhttps://video.igem.org/lazy-static/thumbnails/846418bc-0704-4acf-a348-7de7d6bbe19e.jpgGuangzhou-MedX: SAFe: Shikimic acid feed for healthy stockbreeding and sustainab... (2023) - Team...**Title:** SAFe: Shikimic acid feed for healthy stockbreeding and sustainability **Description:** Antibody-free animal breeding protects human health, reduces the problem of resistance, and improves food safety. Shikimic acid (SA) is an important biochemical metabolite in plants and microorganisms that is known for antimicrobial and anti-inflammatory activities. In our project, we engineered the native shikimate pathway of E. coli to accumulate SA more efficiently. We plan to use it as a feed additive for preventive use in livestock breeding during seasons of high disease incidence. It will help improve the immunity of livestock and poultry, reduce the use of antibiotics, and potentially huge economic losses, and achieve the goal of sustainability. [Wiki](https://2022.igem.wiki/guangzhou-medx)https://static.igem.org/peertube/streaming-playlists/hls/b279c997-8442-47bd-b80a-d7355fd387e6/42a75fec-5905-4e40-b710-4ec89a23c991-master.m3u8https://video.igem.org/videos/embed/o3g1v6tSZkQGJa7GaH7akU615092023-10-18T10:44:27.787ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qPpLHiXihtTDi3yEh4Uz89https://video.igem.org/lazy-static/thumbnails/13c23df1-2211-49a3-8e86-7cdc43d77c3a.jpgCJUH-JLU-China: BreFast: A Fast and Convenient Screening Kit for Breast Cancer E... (2023) - Team...**Title:** BreFast: A Fast and Convenient Screening Kit for Breast Cancer Early Detection **Description:** While breast cancer is the cancer with the highest incidence rate among women, early detection reduces the mortality rate of breast cancer effectively. Therefore, we aim to create a fast and convenient screening kit, BreFast, for breast cancer early detection. We employed comprehensive bioinformatics methods to identify a breast cancer-associated miRNA, miR-21-5p, as an optimal biomarker for screening, and engineered a CRISPR/Cas13a system that could be specifically activated by miR-21-5p to cleave any by-stander RNA such as a dual-labeled reporter RNA. We used a lateral flow strip to show the cleavage of the reporter RNA, as only the intact reporter RNA could cause accumulation of colloidal gold at the T line of this strip. Our BreFast combines the efficiency of CRISPR/Cas13a system and the convenience of lateral flow strips into a novel approach to detect breast cancer. [Wiki](https://2022.igem.wiki/cjuh-jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/c8f9ef32-b8f5-4e20-82ac-4b4566515a12/aa366856-56f6-4aef-9454-34ea7601bbe5-master.m3u8https://video.igem.org/videos/embed/qPpLHiXihtTDi3yEh4Uz8987004932023-10-18T13:55:52.159ZYES2023 Team PresentationsNOhttps://video.igem.org/w/kG9956ceUVSdMFSQrkPaiMhttps://video.igem.org/lazy-static/thumbnails/06115768-e5f8-4595-8597-c9eb1ad46e53.jpgPeking: Construction of pancreatic cancer-targeted EcN for therapy (2023) - Team Presentation [En...**Title:** Construction of pancreatic cancer-targeted EcN for therapy **Description:** Pancreatic cancer is known as the 'king of cancer' due to its high malignancy and poor prognosis. The current treatment is far from satisfactory, and the survival rate has not improved significantly in the past 10 years. Among new-rise therapies, bacterial therapy caught our interest. To create a safe and effective strain, Peking 2023 constructed, characterized and modelled an AND-gate-equivalent promoter in EcN to improve the targeting of pancreatic cancer. At the same time, an acoustic reporting system was transferred into EcN for generating ultrasound-detectable vesicles to provide location information and reinforce other treatments. We also introduced the MC model to imitate intravenous injection. Moreover, we launched various social work including HP and education to popularize synthetic biology and promote life-and-death education. [Wiki](https://2022.igem.wiki/peking)https://static.igem.org/peertube/streaming-playlists/hls/9f7866b9-71fb-4a0d-a294-cb75a567fe73/413c8235-b08e-4746-b572-59a4a5c1b20d-master.m3u8https://video.igem.org/videos/embed/kG9956ceUVSdMFSQrkPaiM7730702023-10-18T14:55:04.564ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mDY5oJP74HqdGp3hkazVvWhttps://video.igem.org/lazy-static/thumbnails/2fbbd309-bbb0-452f-a3a2-51ce767e8414.jpgDuesseldorf: Fungilyzer: Engineering a Brighter Future for Agriculture (2023) - Team Presentation...**Title:** Fungilyzer: Engineering a Brighter Future for Agriculture **Description:** The Fungilyzer project offers an innovative solution to combat phosphate depletion in agricultural soils The project is inspired by the global challenges of phosphate depletion and eutrophication, driven by the finite nature of phosphate resources. It aims to revolutionize phosphate resource management and reshape agriculture by conserving the environment. Phosphorus is a vital plant macronutrient, comprising 0.2% of a plant's dry weight and playing a crucial role in plant growth. Modern agriculture heavily relies on phosphate-based fertilizers from finite reserves, leading to resource scarcity and phosphate runoff contributing to eutrophication. The Fungilyzer project addresses these issues by using genetic engineering to create a fungus, S. cerevisiae, with a sophisticated genetic switch. This switch senses phosphate deficiency and triggers apoptosis to release stored phosphate precisely when plants need it for growth. [Wiki](https://2022.igem.wiki/duesseldorf)https://static.igem.org/peertube/streaming-playlists/hls/a743d9bf-cf4b-40f9-b20a-c85273c62ed4/da962029-7b49-4257-9215-5f48442cd74d-master.m3u8https://video.igem.org/videos/embed/mDY5oJP74HqdGp3hkazVvW7100322023-10-18T15:12:37.565ZYES2023 Team PresentationsNOhttps://video.igem.org/w/3S5JvRg8BUXzjvvzaSfd5Phttps://video.igem.org/lazy-static/thumbnails/6f81e2b6-e6ed-426f-ad2a-f2ba761cde10.jpgUSTC: TAGO--Diet Sugar Tagatose Production with Thermotolerant Yeast (2023) - Team Presentation [...**Title:** TAGO--Diet Sugar Tagatose Production with Thermotolerant Yeast **Description:** Overconsumption of sugars are partly related to the growing rates of obesity and diabetes. Tagatose, a rare hexose, is almost as sweet as surcose while its caloric content is lower. In our project, we engineerd two different metabolic pathways, one using isomerase and the other using reductase and dehydrogenase, to product tagatose with lactose in Kluyveromyces marxianus, a thermotolerant yeast. Through this method, we anticipate low-cost and efficient production of tagatose. [Wiki](https://2022.igem.wiki/ustc)https://static.igem.org/peertube/streaming-playlists/hls/173061f4-ce57-48df-8a75-6353fafe2877/1ee3a4dc-ee75-42aa-8812-db88d6e8c3b2-master.m3u8https://video.igem.org/videos/embed/3S5JvRg8BUXzjvvzaSfd5P8140192023-10-18T15:22:51.464ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qR5k5VSPAtS4QF1NSxLJo7https://video.igem.org/lazy-static/thumbnails/7eae4696-ba2e-4fc9-a530-4fc27122f757.jpgFujian-United: Synthesis of new feed additives through genetic engineering to ex... (2023) - Team...**Title:** Synthesis of new feed additives through genetic engineering to express phytase with AppA and An_phy33 **Description:** The increasing scale of global livestock farming has led to a shortage in the supply of conventional feed protein raw materials in the feed industry and even the phenomenon of competition with people for food, livestock farming and processing are also prone to environmental problems such as water and soil pollution.We construct recombinant plasmids pYES2-AppA and pYES2-An_phy33, transform them into E.coli DH5 then transform into Saccharomyces cerevisiae BY4741 and fermentate it to express phytase. Application of yeast single-cell proteins from phytase can be added to livestock feed to improve nutrient absorption by animals. [Wiki](https://2022.igem.wiki/fujian-united)https://static.igem.org/peertube/streaming-playlists/hls/c93570c0-d611-484b-a381-2ccb69754c7a/c0c729a5-b1f6-47ff-8527-56ced2d34c32-master.m3u8https://video.igem.org/videos/embed/qR5k5VSPAtS4QF1NSxLJo78900122023-10-18T15:39:43.291ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1QcjTJMuKoJB26FUn4tx2Phttps://video.igem.org/lazy-static/thumbnails/e5120275-4204-4d4d-ac7f-934370fdae49.jpgSYSU-SLS-CHINA: SYN-MACRO (Synthetic engineering macrophage for Hepatocellular C... (2023) - Team...**Title:** SYN-MACRO (Synthetic engineering macrophage for Hepatocellular Carcinoma therapy) **Description:** Cancer is a malignant disease that poses significant threats to human health. In recent years, immunotherapy approaches such as CAR-T have emerged promising for cancer treatments. However, CAR-T has demonstrated limited effectiveness in treating solid tumors. The use of CAR-M therapy also presents certain limitations. Macrophages exhibit M1/M2 phenotypes. While macrophages in solid tumor are often being 'domesticated' into the M2 phenotype. These anti-inflammatory macrophages further promote tumor development and contribute to cancer progression. Considering these challenges, our team has proposed SYN-MACRO (Synthetic engineering macrophage for Hepatocellular Carcinoma therapy) this year. We have engineered macrophages and designed a series of gene circuits to enable them to transition to the M1 phenotype upon tumor recognition, exerting a pro-inflammatory effect, recruiting other immune cells, and suppressing tumor development. We believe that SYN-MACRO holds great promise for offering new insights and treatment approaches for liver cancer and other solid tumors. [Wiki](https://2022.igem.wiki/sysu-sls-china)https://static.igem.org/peertube/streaming-playlists/hls/06baae41-6c86-45ca-af4b-c6b3190380cd/d4a66e9f-42be-46b7-a29b-79ada6ff6a55-master.m3u8https://video.igem.org/videos/embed/1QcjTJMuKoJB26FUn4tx2P8500242023-10-18T16:15:37.972ZYES2023 Team PresentationsNOhttps://video.igem.org/w/jpmuo91SekBpzSRuq4bN72https://video.igem.org/lazy-static/thumbnails/aa86e04f-5d66-4f13-8324-b3265d2857ea.jpgSubCat-GD: Restoring the Balance: Engineering Omega-3 Production for Optimal Health (2023) - Team...**Title:** Restoring the Balance: Engineering Omega-3 Production for Optimal Health **Description:** Based on our comprehensive survey, it has come to light that a significant majority of individuals, approximately 90%, exhibit an imbalance in the levels of polyunsaturated fatty acids Omega-6 and Omega-3. And Omega-3 fatty acids possess remarkable properties such as anti-inflammatory and anti-cancer effects, rendering them vital for maintaining optimal human health. In light of this prevailing issue, we used genetic engineering techniques to create bacteria that overexpress enzymes, namely Fat-1 and ELOVL-5, which play important role in Omega-3 synthesis. Through the innovative application of genetic engineering techniques, our project aims to revolutionize the way Omega-3 fatty acids are produced and integrated into the human diet. By addressing the prevalent imbalance in Omega-6 and Omega-3 fatty acids, we aspire to make a meaningful contribution to public health and improve the quality of life for individuals worldwide. [Wiki](https://2022.igem.wiki/subcat-gd)https://static.igem.org/peertube/streaming-playlists/hls/95073ac6-ab08-43d3-82bb-6047b2613315/85bed69e-feb2-445b-827b-d558171abf04-master.m3u8https://video.igem.org/videos/embed/jpmuo91SekBpzSRuq4bN728990172023-10-18T16:51:13.137ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bjHy989srVaF6ELxJj6sJEhttps://video.igem.org/lazy-static/thumbnails/cad64011-0217-4057-a0d0-bab35c8efac2.jpgBFSU-ICUnited: Transforming E. coli to promote hair repair and maintenance (2023) - Team Presenta...**Title:** Transforming E. coli to promote hair repair and maintenance **Description:** Hair damage is usually caused by external factors in daily life, such as hair dyeing, perming, excessive combing, high temperatures from hair dryers, UV exposure, washing, and changes in climate and environment. These factors can cause hair to lose its luster, become dry, brittle, patchy, and less elastic. It may also cause problems such as discoloration, split ends, and hair breakage. To address these common hair problems, we used bioengineering techniques to engineer E. coli to produce a short peptide that repairs hair damage. In addition, we have integrated a glutathione production system to maintain hair health, and added tyrosinase genes to help the conversion of melanin to maintain the natural color of the hair. This innovative biotechnology provides new possibilities for hair care, not only repairing damaged hair, but also maintaining hair health and color. [Wiki](https://2022.igem.wiki/bfsu-icunited)https://static.igem.org/peertube/streaming-playlists/hls/53986213-5b73-4541-9be0-8f209a10453a/210f15ee-2352-4638-b707-e429eb8fd9c2-master.m3u8https://video.igem.org/videos/embed/bjHy989srVaF6ELxJj6sJE8910242023-10-18T17:07:11.174ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5h5ZbDjUq5TSiaDY1Hcy3ehttps://video.igem.org/lazy-static/thumbnails/eaa7655a-5e11-4d96-9b60-a5a13e77e3d5.jpgNTU-Singapore: Prime editing optimization and expression in stem cells, bacteria... (2023) - Team...**Title:** Prime editing optimization and expression in stem cells, bacteria and yeast **Description:** Prime editing is a recently developed versatile genome editing technology that offers high efficiency, versatility, and specificity. Unlike traditional methods, it enables precise alterations to genomic DNA without the need for DNA double-strand breaks. Despite numerous optimizations, MMLV RT remains a commonly used reverse transcriptase in prime editing (PE), yet it still exhibits certain limitations that may impede PE efficiency. To address this issue, the NTU-Singapore team identified and developed PFV RT as a viable alternative to MMLV. We rigorously assessed the performance of the prime editor containing PFV RT at various endogenous and therapeutic sites, as well as in a TLR reporter system custom-designed by our team. Beyond standard cell lines, successful transfections were achieved in H9 and ACS1030 stem cell lines. Additionally, attempts were made to express the prime editor in alternative hosts such as bacteria and yeast, expanding its potential applications. [Wiki](https://2022.igem.wiki/ntu-singapore)https://static.igem.org/peertube/streaming-playlists/hls/22a38713-abf6-4335-bd8e-99491fec21c9/002e89fe-3d0d-4c00-a8eb-18c659655d22-master.m3u8https://video.igem.org/videos/embed/5h5ZbDjUq5TSiaDY1Hcy3e8580192023-10-18T17:10:31.938ZYES2023 Team PresentationsNOhttps://video.igem.org/w/jvaAwrLD5XYe92sdKBFoQjhttps://video.igem.org/lazy-static/thumbnails/cf13050c-681d-4633-abb5-211ea6e92cc3.jpgJiangnan-China: Efficient stereoselective hydroxylation of deoxycholic acid by t... (2023) - Team...**Title:** Efficient stereoselective hydroxylation of deoxycholic acid by the robust whole-cell Cytochrome P450 CYP107D1 biocatalyst **Description:** Deoxycholic acid (DCA) has been authorized by Federal Drug Agency for the cosmetic reduction of redundant submental fat. The hydroxylated product (6 -OH DCA) was developed to improve the solubility and pharmaceutic properties of DCA for further applications. Herein, a combinatorial strategy was applied to construct a powerful Cytochrome P450 biocatalyst (CYP107D1, Olep) to convert DCA to 6 -OH DCA. Firstly, the weak expression of OleP was significantly improved using pRSFDuet-1 plasmid in E. coli C41(DE3) strain. Next, the supply of heme was enhanced by the moderate overexpression of crucial genes in the heme biosynthetic pathway. In addition, a new biosensor was developed to select the appropriate redox partner. Furthermore, a cost-effective whole-cell catalytic system was constructed, resulting in the highest reported conversion rate of DCA to 6 -OH DCA (from 4.8% to 99.1%). The combinatorial strategies applied in this study provide an efficient method to synthesize high value-added hydroxylated compounds by P450s. [Wiki](https://2022.igem.wiki/jiangnan-china)https://static.igem.org/peertube/streaming-playlists/hls/95d6fa7e-c746-46b2-94da-4f29acc9c432/ede9b73b-57aa-4c36-8be5-34485acc23b5-master.m3u8https://video.igem.org/videos/embed/jvaAwrLD5XYe92sdKBFoQj8920292023-10-18T17:14:46.828ZYES2023 Team PresentationsNOhttps://video.igem.org/w/r539EeGxKhwNJ14uS3Umyphttps://video.igem.org/lazy-static/thumbnails/c779afaf-7e9c-4667-88f6-ebe9f3707e26.jpgJLU-China: EyeGuard: A System for Inhibiting Pseudomonas aeruginosa Using DMBT1 ... (2023) - Team...**Title:** EyeGuard: A System for Inhibiting Pseudomonas aeruginosa Using DMBT1 Protein Generation and Hardware Platform **Description:** Contact lenses, while correcting vision and enhancing aesthetics, pose hygiene risks, including Pseudomonas aeruginosa infection. Our iGEM project addresses this by engineering E. coli into lens solutions, creating a DMBT1 protein system to inhibit Pseudomonas growth, reducing infection risks. This system comprises a toxin-antitoxin system, population sensing system for bacterial growth control, and an Hsp27 self-inducing system for increased protein production. These systems were experimentally validated and optimized through mathematical models. Additionally, we developed a multifunctional smart lens case that monitors solution properties in real-time, enhancing user safety and compatibility with specific solutions. This project provides an innovative, feasible, safe solution to improve lens wearer safety and comfort, lower infection risks, and contributes significantly to synthetic biology and eye health care, integrating engineering, biology, and mathematical modeling. [Wiki](https://2022.igem.wiki/jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/cb04c421-2dbe-4ab5-8800-5718d75fac27/351429de-e99b-4247-b65a-9d678293db25-master.m3u8https://video.igem.org/videos/embed/r539EeGxKhwNJ14uS3Umyp7850242023-10-18T17:26:40.120ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ereTeqghj2KyL5ZJ8zLSPXhttps://video.igem.org/lazy-static/thumbnails/dcd5f7a7-e8aa-4dac-92eb-170a3865a8e3.jpgXJU-China: Genetic Shield (2023) - Team Presentation [English]**Title:** Genetic Shield **Description:** Microorganisms have a wide range of applications in pharmaceutical, chemical, agricultural and experimental fields. Various metabolic engineering modification strategies and techniques have been used to build E.coli and yeast cell factories. However, microorganisms can fail to survive properly or even die due to veorly alkaline or saline environments during culture and production. To overcome this problem, we collected six strains: Brevibacterium casei G20,Bacillus haynesii P19,Micrococcus luteus R17... which have developed unique salinity and base resistance mechanisms that allow them to grow in 18% NaCl or pH13 environments. We used the Multi-Omics to search for general genetic factors which can enhance microbial salinity and base tolerance. Then,we will use T7 promoter,E. coli to evaluate their performance. Finally, we will get generic 'shields' that can use in both Gram-negative and positive bacteria, this will accelerate the development and production of salt-tolerant bacterial resources for industrial applications. [Wiki](https://2022.igem.wiki/xju-china)https://static.igem.org/peertube/streaming-playlists/hls/6cccf3e5-4216-453e-8753-c8afb94e2235/5963146f-bb6f-42f1-905f-4ee85eb02d64-master.m3u8https://video.igem.org/videos/embed/ereTeqghj2KyL5ZJ8zLSPX8040162023-10-18T17:40:23.745ZYES2023 Team PresentationsNOhttps://video.igem.org/w/xA92XZNL2hoVCt63F1hbHuhttps://video.igem.org/lazy-static/thumbnails/707cd133-c0cd-40cd-8fba-155261b65469.jpgNavarraBG: Biogalaxy Project: Plants as Biosensors (2023) - Team Presentation [English]**Title:** Biogalaxy Project: Plants as Biosensors **Description:** Plants have amazing and significant sensing capabilities. We proposed the use of plants themselves as sensing devices to detect different compounds or environmental conditions. Using plant promoters that are activated in the presence of high concentrations of CO2, selected by the Navarra_BG team, we have produced Arabidopsis plants capable of acting as biosensors against this metabolite. The results obtained open new possibilities for the use of plants as biosensors for other soil pollutant molecules or specific conditions. In this project, we also use Synthetic Biology to design new gene reporter constructs that facilitate the visualization of the response of the biosensor plant without the need for complex equipment. In addition, we explored the use of sequences fused to the reporter protein to control its degradation once the stimulus is terminated. [Wiki](https://2022.igem.wiki/navarrabg)https://static.igem.org/peertube/streaming-playlists/hls/ffcf89a6-9d42-4813-864b-7034b56322ae/ad02feb3-fbf8-40ba-bc9d-857b6c4af084-master.m3u8https://video.igem.org/videos/embed/xA92XZNL2hoVCt63F1hbHu7600242023-10-18T19:55:59.720ZYES2023 Team PresentationsNOhttps://video.igem.org/w/x5VSWaP38yc9aeGG4gaJaYhttps://video.igem.org/lazy-static/thumbnails/4eec6f21-a2ab-4c2f-99a6-ca6850010a77.jpgAalto-Helsinki: PET-2-Protein: Revolutionizing Plastic Recycling and Protein Pro... (2023) - Team...**Title:** PET-2-Protein: Revolutionizing Plastic Recycling and Protein Production **Description:** Our project aims to address two major global challenges: plastic pollution and food security. Our objective is to develop a proof-of-concept approach to convert PET plastic into a protein-rich biomass. The first phase includes enzymatic depolymerization of PET by the modified FAST-PETase and wild-type MHETase enzymes. We have produced PETase and attempted MHETase production via Escherichia coli BL21 (DE3) strain cloning. Following, the resulting monomers of the depolymerization process, Terephthalic Acid (TPA) and Ethylene Glycol (EG), are integrated within minimal media M9. This media is used to grow Rhodococcus opacus and Comamonas testosteroni bacterial strains. By utilising the monomers as their carbon source, the microorganisms produce a biomass which is further analysed, showing a significant content of proteins. In addition, we have designed new constructs to engineer other bacterial strains, Escherichia coli and Pseudomonas putida, to enhance the monomer assimilation pathways to improve their utilisation and the protein production. [Wiki](https://2022.igem.wiki/aalto-helsinki)https://static.igem.org/peertube/streaming-playlists/hls/fbbb7a26-0521-4821-b432-7bfbc8100762/183991d2-dc2a-4740-a070-4b9696faf2bc-master.m3u8https://video.igem.org/videos/embed/x5VSWaP38yc9aeGG4gaJaY7790582023-10-18T20:15:47.625ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5EtNSqTr7pM2Sj18gL1beshttps://video.igem.org/lazy-static/thumbnails/ddf130ca-8386-4bf1-9a23-11282a9188b8.jpgINSAENSLyon1: SUPERBUGBUSTER, a removal of antibiotic resistance (2023) - Team Presentation [Engl...**Title:** SUPERBUGBUSTER, a removal of antibiotic resistance **Description:** Called the 'silent' pandemic, antibiotic resistance is one of the most important issues that contemporary medicine faces today. Causing millions of deaths per year all over the world, the number keeps rising to a predicted 10 million deaths in 2050. It is mainly due to our over-consumptions through the years. But for now, no technological solution exists, and no new antibiotics have yet been discovered. To avoid this disaster, the INSA-ENS-Lyon1 team created SuperBugBuster, a project and a tool capable of removing resistance from bacteria. Based on two different approaches: CRISPR-cas9 and Bac-PROTAC systems, it permits an innactivation of a targeted resistant gene and the degradation of the associated proteins. The project construction also includes creating software to design CRISPR-cas9 RNA guide genes and important work on human practices and education of society, which is the core and the beginning of the issue of antibiotic resistance. [Wiki](https://2022.igem.wiki/insaenslyon1)https://static.igem.org/peertube/streaming-playlists/hls/25c3f48b-1033-41d7-98d9-f8bebabe3754/8d0f6992-c3de-4748-b6cf-31a3252a671f-master.m3u8https://video.igem.org/videos/embed/5EtNSqTr7pM2Sj18gL1bes82801192023-10-18T20:24:36.971ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ecKsgJBLaNc6Ly6AvEJi5hhttps://video.igem.org/lazy-static/thumbnails/63d487ac-cff6-4005-9bae-093cf5ec2cb8.jpgWrightState-OH: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/wrightstate-oh)https://static.igem.org/peertube/streaming-playlists/hls/6aeac34c-59dd-46c1-a5b8-2e985e351b6c/dce68cdc-059e-4ce8-af7e-2f70e6516668-master.m3u8https://video.igem.org/videos/embed/ecKsgJBLaNc6Ly6AvEJi5h7930252023-10-18T20:39:36.764ZYES2023 Team PresentationsNOhttps://video.igem.org/w/nL29ToxAv6koCULYhKW2Dqhttps://video.igem.org/lazy-static/thumbnails/78d05043-3fc2-4b5d-a70c-da4d677306f6.jpgNYU-Abu-Dhabi: HypeColl: Biomanufacturing of Biomimietic Bacterial Collagen-Like... (2023) - Team...**Title:** HypeColl: Biomanufacturing of Biomimietic Bacterial Collagen-Like Protein **Description:** Collagen is ubiquitous in the human body making it widely used in applications ranging from tissue engineering and regenerative medicine to cosmetics and supplements. Collagen is often sourced from animal sources leading to ethical, social, and even religious concerns. Through HypeColl, we aim to produce a bacterial collagen-like protein (CLP), Scl2.28-1. CLPs are thermally stable at body temperature but do not form collagen fibers. Our project uses gene code expansion (GCE) to introduce non-coding amino acids in E. Coli auxotroph strains to make Scl2.28 form collagen fiber and be more mimetic of mammalian collagen. We were able to synthesize Scl2.28 in BL21 and future steps will focus on GCE. As such, HypeColl can serve as a sustainable, tunable, and scalable alternative to animal-derived collagen for numerous applications. [Wiki](https://2022.igem.wiki/nyu-abu-dhabi)https://static.igem.org/peertube/streaming-playlists/hls/b0355932-a2d6-45dd-940d-459b55014dbe/0f44f896-1881-4769-8bc1-1777aa074cae-master.m3u8https://video.igem.org/videos/embed/nL29ToxAv6koCULYhKW2Dq5860202023-10-18T22:00:41.279ZYES2023 Team PresentationsNOhttps://video.igem.org/w/6fs1Xe8SQ5ucHHkzkrv4qshttps://video.igem.org/lazy-static/thumbnails/dc274a7b-9859-4c06-a301-94671c704052.jpgWashington: Computational Design of NpRdhA for bioremediation of PCBs (2023) - Team Presentation ...**Title:** Computational Design of NpRdhA for bioremediation of PCBs **Description:** Polychlorinated biphenyls (PCBs) are widespread persistent pollutants that pose a health risk to humans and wildlife. While bioremediation of PCBs has been demonstrated in bacteria expressing the biphenyl degradation pathway (bph gene cluster), efficiency varies depending on the number and position of the PCB chlorines. A critical step for bioremediation of PCBs is therefore the removal of PCB chlorine atoms catalyzed by dehalogenase enzymes. Unfortunately, these dehalogenase enzymes are often oxygen-sensitive and thus difficult to implement in a wastewater setting. Hence, NpRdhA, a non-oxygen-sensitive dehalogenase enzyme was computationally redesigned for expression in E.coli, with potential implementation in biofilm for wastewater treatment. Here, we report mutated sequences, generated using a deep-learning based software, that when evaluated by a Rosetta evaluation model we developed suggest a theoretical increase in enzyme activity. Parameters for implementation were also explored through the kinetic modeling methods documented on our wiki page. [Wiki](https://2022.igem.wiki/washington)https://static.igem.org/peertube/streaming-playlists/hls/2a8223a6-f8b4-4b5e-a1e1-1894410ef9ae/0a4410a8-dc50-4167-8d1c-40e24944a258-master.m3u8https://video.igem.org/videos/embed/6fs1Xe8SQ5ucHHkzkrv4qs8830242023-10-18T22:16:28.579ZYES2023 Team PresentationsNOhttps://video.igem.org/w/9TbThLYyMpvcxQBG5zXyHShttps://video.igem.org/lazy-static/thumbnails/cad57960-f38f-45fc-b325-6569226e2b2d.jpgToulouse-INSA-UPS: CALIPSO: the rise of smart liposomes in cancer treatment (2023) - Team Present...**Title:** CALIPSO: the rise of smart liposomes in cancer treatment **Description:** Our team iGEM Toulouse tackles the challenge of side effects in cancer treatment with CALIPSO, an intelligent therapeutic liposome. It senses cancer biomarkers, produces the anticancer drug in situ, and delivers it right on the tumor site. By combining in silico protein design, genetic biosensors, cell-free protein synthesis, and biochemical network modeling, we devised an integrated liposomal platform with cell-like functionalities to specifically kill cancer cells. We engaged with a broad spectrum of stakeholders, well beyond scientists, such as supportive care professionals, cancer-fighting associations and patients, ensuring CALIPSO s real-world impact. Moreover, we developed a business strategy to transition our innovative technology into a robust therapeutic startup. We believe CALIPSO has the potential to push the boundaries of chemotherapy by combining the strength of therapeutic liposomes and bottom-up synthetic biology. Using genetically engineered liposomes as a chassis enables a wide array of new applications, which will inspire future iGEM projects. [Wiki](https://2022.igem.wiki/toulouse-insa-ups)https://static.igem.org/peertube/streaming-playlists/hls/47eebfcd-f38f-46fa-8e2e-03c3608df5a4/37ab891c-2a87-4db5-98b7-0bdb7a4fb48c-master.m3u8https://video.igem.org/videos/embed/9TbThLYyMpvcxQBG5zXyHS90005372023-10-18T23:24:13.856ZYES2023 Team PresentationsNOhttps://video.igem.org/w/aawzJUR6SusHKwAA9fDxs3https://video.igem.org/lazy-static/thumbnails/fd417fcb-918f-44cb-a49f-e4fe63c6579e.jpgUni-Padua-IT: PASTA - Phage Assisted Silencing Tool against Antimicrobial resist... (2023) - Team...**Title:** PASTA - Phage Assisted Silencing Tool against Antimicrobial resistance **Description:** Antimicrobial resistance (AMR) poses a critical global public health threat, with increasing mortality rates and substantial economic implications. Italy, notably affected, faces approximately 11,000 deaths attributed to AMR infections annually. A group of pathogens, collectively known as ESKAPE(E), including bacteria like Klebsiella pneumoniae, Acinetobacter baumannii, Pseudomonas aeruginosa (and Escherichia coli), contribute significantly to this crisis. WHO recognizes the urgency of research and development for antimicrobials and diagnostics. Furthermore, FAO claims that the environmental impact of AMR in agriculture and veterinary sectors. PASTA leverages on Synthetic Biology to develop novel approaches to engineer those bacteria and restore susceptibility to antibiotics. PASTA combines engineered bacteriophages and CRISPRi to target AMR, maintaining high modularity, safety, and specificity. Contextually, PASTA aims to develop novel iGEM-compliant parts to characterize those pathogens. PASTA aims include the urgency of raising awareness about AMR and drawing attention to engineered phages as possible tools in medicine and Synthetic Biology. [Wiki](https://2022.igem.wiki/uni-padua-it)https://static.igem.org/peertube/streaming-playlists/hls/4a36c9dc-cd30-4fc1-ae82-c077e32a126a/5c9427e2-382b-4ad7-a6ce-0abf07c33e30-master.m3u8https://video.igem.org/videos/embed/aawzJUR6SusHKwAA9fDxs38770612023-10-18T23:31:15.162ZYES2023 Team PresentationsNOhttps://video.igem.org/w/tffLVV3mSR9qB4Dnqkr2ikhttps://video.igem.org/lazy-static/thumbnails/87f8d9ba-7d49-4f82-9740-5ad0c1f47f46.jpgUNC-ChapelHill: PyoPower: A self-powered sense-and-treat pyocyanin biosensor for... (2023) - Team...**Title:** PyoPower: A self-powered sense-and-treat pyocyanin biosensor for P. aeruginosa infections **Description:** Pseudomonas aeruginosa is an opportunistic pathogen prevalent in wounds of hospital patients. Current detection methods for P. aeruginosa take between 24-48 hours through use of swab swab samples and plate cultures. During this time, the infection worsens and forms a biofilm, making the infection increasingly difficult to eradicate. Therefore, a more rapid sense-and-treat system would improve the treatment of these infected wounds. We utilize the redox properties of pyocyanin, a key biomarker of P. aeruginosa, to create an electrochemical biosensor powered by enzyme fuel cells. We use the enzyme pyrroloquinoline quinone glucose dehydrogenase (PQQGDH) that powers the enzyme fuel cell reaction. The use of curcumin, a natural compound of turmeric, as a treatment molecule through a pH sensitive hydrogel is also explored through mathematical modeling. Together, our goal is to demonstrate a sense-and-treat system for P. aeruginosa infections. [Wiki](https://2022.igem.wiki/unc-chapelhill)https://static.igem.org/peertube/streaming-playlists/hls/dca44305-4fc1-4793-ad9a-0982ea6ba6e9/94ec3d63-e857-4835-b75c-39e8a74e88a1-master.m3u8https://video.igem.org/videos/embed/tffLVV3mSR9qB4Dnqkr2ik7090152023-10-18T23:52:50.604ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8GKXSciFRw5vcaZnRFPLHmhttps://video.igem.org/lazy-static/thumbnails/abcdba00-cafb-44f7-b24f-abceecd3ed64.jpgHongKong-PuiChing: Dimstar: a Silent Treatment on Chronic Liver Disease (2023) - Team Presentatio...**Title:** Dimstar: a Silent Treatment on Chronic Liver Disease **Description:** Chronic liver disease is on account of approximately 2 million fatalities annually worldwide., being the 11th leading cause of death. Our team aims to prevent this disease by producing a gene with Gata4 protein, then introducing the gene to red blood cells as carriers via liposomes, transporting it to the liver cell for curing and diagnosing liver fibrosis. Through the experiment, we successfully implemented our gene with GFP into a plasmid using Golden Gate Assembly. Through transformation of DH5 bacteria, the duplication of our desired gene was successful. and by transformation of BL21 bacteria, we successfully produced our desired protein and it showed fluorescence, proving the successful implementation of gene and protein into the liposome. In due future, we propose to insert our protein into red blood cells, which can be introduced into the liver, providing an efficient and accessible therapy for curing and detecting liver fibrosis. [Wiki](https://2022.igem.wiki/hongkong-puiching)https://static.igem.org/peertube/streaming-playlists/hls/3e60d090-5bfb-43f2-ac09-cad10908ceb6/9e6ad66f-c5ae-46cc-8d13-b270f93ab2d6-master.m3u8https://video.igem.org/videos/embed/8GKXSciFRw5vcaZnRFPLHm8340292023-10-19T00:38:35.121ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mufBr8Jx7UGjVq1xYLokE3https://video.igem.org/lazy-static/thumbnails/f08b4165-61ad-460b-b6da-3c1789d12c7e.jpgEastCoastBioCrew: RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient ... (2023) - Team...**Title:** RhizeUP: Engineering Rhizobium to Combat the Root of Nutrient Runoff **Description:** Modern agricultural practices rely heavily on phosphate fertilizers. However, due to the tendency of phosphate to bond with minerals in the soil, most phosphate molecules exist in a form unusable to plants. These mineral phosphates are a driving force behind the nutrient pollution and runoff in waterways that leads to algal blooms. RhizeUP aims to engineer Rhizobium tropici, a nutrient-fixing soil bacteria known for its high tolerance to environmental stresses and which is a successful microsymbiont of several legumes. We are increasing phosphate solubility to increase plant uptake and to remove excess phosphate from the soil. Our goal is to introduce the PQQ + gdc genes which secrete gluconic acid that chelates mineral phosphates. Additionally, we utilized a codon-optimized pstSCAB operon, high-affinity phosphate transporter proteins, to transport phosphate into the cell. We believe these pathways will effectively modify rhizobacteria to decrease phosphate runoff and reduce the need for phosphate fertilizer. [Wiki](https://2022.igem.wiki/eastcoastbiocrew)https://static.igem.org/peertube/streaming-playlists/hls/a5e89a62-1100-4bc2-9094-030fc8b77f3a/2dfb7b68-1337-40b3-8a6d-6a5c77340279-master.m3u8https://video.igem.org/videos/embed/mufBr8Jx7UGjVq1xYLokE38680472023-10-19T00:44:16.748ZYES2023 Team PresentationsNOhttps://video.igem.org/w/g389VYcmt8VzpRUvcwPe8ehttps://video.igem.org/lazy-static/thumbnails/0ad9b833-7a75-477a-babe-f7a33af7ddb1.jpgIFB-Gdansk: EDC-Seas: development of an enzymatic degradation system of dibutyl ... (2023) - Team...**Title:** EDC-Seas: development of an enzymatic degradation system of dibutyl phthalate involving cellulosome-based immobilization. **Description:** Endocrine-disrupting chemicals (EDCs) present in water have recently raised concerns about their negative impact on human and animal health. Phthalates, which belong to the EDCs, are widely used in industry as plasticizers, improving the mechanical properties of plastic materials. However, they can be released from materials to the environment and reach drinking water, where their concentrations often exceed the limits set by the WHO as safe. In response to the problem of phthalic acid esters (PAEs) pollution, we came up with the idea of a protein complex capable of efficient degradation of those pollutants. Based on literature, we designed a system consisting of enzymes fused to dockerin domains that enable binding to scaffoldin, which facilitates immobilization to cellulose. We expect that the resulting engineered proteins will make it possible to create a cell-free water filtration system which will degrade phthalates to easily biodegradable benzoic acid. [Wiki](https://2022.igem.wiki/ifb-gdansk)https://static.igem.org/peertube/streaming-playlists/hls/79c4f9ea-6860-4c91-b5d5-3bf8fd1829cf/b6afebe3-8935-4157-86cc-c9c115b0a900-master.m3u8https://video.igem.org/videos/embed/g389VYcmt8VzpRUvcwPe8e87101912023-10-19T02:01:24.494ZYES2023 Team PresentationsNOhttps://video.igem.org/w/szruiS8MoaeQADakXrDZGkhttps://video.igem.org/lazy-static/thumbnails/a14bf78a-8c8c-4dc5-9665-c5a67c4ffdf8.jpgUESTC-China: E.coli air guard (2023) - Team Presentation [English]**Title:** E.coli air guard **Description:** With every breath, there are tons of substances that go into our body, air quality and our health are closely linked. However, air is more dangerous than we think. Benzo[a]pyrene, nicotine, and formaldehyde in cigarettes are the first-grade carcinogens. Indole, butyric acid, and hydrogen sulfide often pervade public restrooms, waste receptacles, feline litter areas, and other communal spaces. These malodorous gases not only disrupt the ambiance but also irritate both the ocular and respiratory faculties, potentially leading to health ailments. Our project involved designing metabolic pathways to degrade these substances. We have developed a hardware that can be loaded with engineered bacteria to purify gases to make this project more beneficial for human beings. A new modeling method has been developed to improve protein structure prediction and function through directed evolution. [Wiki](https://2022.igem.wiki/uestc-china)https://static.igem.org/peertube/streaming-playlists/hls/d738db6e-3524-4a07-9fae-fa29e924b01f/399ccd9b-b108-455f-9145-90dd34f114aa-master.m3u8https://video.igem.org/videos/embed/szruiS8MoaeQADakXrDZGk8750222023-10-19T02:30:46.375ZYES2023 Team PresentationsNOhttps://video.igem.org/w/u2e7vdr5DMP8vts6ewKErahttps://video.igem.org/lazy-static/thumbnails/bc54cd6f-1c9b-4a50-a85c-87dcfa02fd1d.jpgThinker-Guangdong: Conservation of Ancient Buildings Using MICP Technology-Micro... (2023) - Team...**Title:** Conservation of Ancient Buildings Using MICP Technology-Microbial Cement **Description:** Ancient buildings are 'living cultural relics, living history' that have carried the history for thousands of years, so restoration of ancient roofs is of great significance to the transmission of history. However, because of the loss of ancient restoration methods, we wanted to use microbial-induced carbonate precipitation to fill in the cracks in the artefacts and strengthen them while preventing further damage. At first we used the enzyme urease to break down urea to produce NH3 and CO2. the alkaline environment created by the NH3 promotes Ca2+ to combine with carbonate to form calcium carbonate precipitation. We then proceeded to add a CspA cold-inducible promoter to ensure that the urease could be expressed at low temperatures, and finally we added biopolysaccharides in order to improve the toughness as well as the durability of the calcium carbonate precipitates. The final product was presented as a glue-like item. [Wiki](https://2022.igem.wiki/thinker-guangdong)https://static.igem.org/peertube/streaming-playlists/hls/e2ebb4f6-a651-43c0-99b6-fd0e5ea62003/5049c94c-1816-4fd1-bdd4-68b32e5e0c17-master.m3u8https://video.igem.org/videos/embed/u2e7vdr5DMP8vts6ewKEra8320152023-10-19T02:37:46.755ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4WXmGFJC4bWvrTQiiq5CXQhttps://video.igem.org/lazy-static/thumbnails/11503dbe-b95e-4c25-886d-9ec68e3c8c21.jpgWVHS-SanDiego: Introducing PETase and MHETase into Alteromonas (2023) - Team Presentation [English]**Title:** Introducing PETase and MHETase into Alteromonas **Description:** The abundance of polyethylene terephthalate (PET) plastics in the oceans cause issues for all types of life. The sequential enzymes, PETase and MHETase, found in the soil bacterium Ideonella sakaiensis, have shown degradation of PET plastics through metabolic activity. However, because I. sakaiensis is found mainly in soil, it is not an ideal host when attempting to degrade PET plastics in the ocean. By introducing these genes into Alteromonas macleodii, a marine bacterium, there is the possibility of being able to degrade PET in saltwater conditions using its ability to form biofilm. Using the Loop Assembly method, plasmids were constructed containing the genes that encode for PETase and MHETase. These plasmids were created in Escherichia coli and were subsequently conjugated into Alteromonas. Ongoing experiments have shown the proper L2 inserts found in our Alteromonas cells and we predict these cells should be able to degrade PET plastics in marine conditions. [Wiki](https://2022.igem.wiki/wvhs-sandiego)https://static.igem.org/peertube/streaming-playlists/hls/1ff7b1c9-1fed-48c8-9e06-010fd0539ab6/76f217bc-a45f-4d33-b3ae-55dcaa0d156d-master.m3u8https://video.igem.org/videos/embed/4WXmGFJC4bWvrTQiiq5CXQ8790342023-10-19T03:05:05.717ZYES2023 Team PresentationsNOhttps://video.igem.org/w/opmfbwS1EHu4E7zfbnm8sEhttps://video.igem.org/lazy-static/thumbnails/bc638e65-2a77-40b3-b2e4-1d4e992da2d9.jpgSMBU: The Genome Detective: Universal biosensor for CRISPR-Cas activity evaluation. (2023) - Team...**Title:** The Genome Detective: Universal biosensor for CRISPR-Cas activity evaluation. **Description:** CRISPR-Cas technologies hold immense potential for next-generation gene therapy. However, because of the complex genome structure and potential irreparable consequences, these technologies must be thoroughly tested. To address this, we propose a universal cellular biosensor capable of rapidly and accurately assessing the activity of genome editing systems without the need for complex sequencing. We did a comprehensive analysis of existing genome editing systems to understand their strengths and limitations. We then carefully select key genetic components to create a biosensor system that can detect and monitor editing system activity. This molecular biosensor operates on genetic chains, allowing specific monitoring of individual components. Our ultimate goal is to develop a genetic chain capable of detecting the activity of editing systems and evaluate it's performance in vivo using model cellular systems. In perspective, this biosensor will enhance the safety and stability, aiding in the selection of optimal editing systems for specific cases. [Wiki](https://2022.igem.wiki/smbu)https://static.igem.org/peertube/streaming-playlists/hls/b56ba223-624c-45de-9fb1-59fae0b9c7b6/d98d1b72-29da-40dc-90c5-5e79dbe791a4-master.m3u8https://video.igem.org/videos/embed/opmfbwS1EHu4E7zfbnm8sE8990132023-10-19T03:27:15.824ZYES2023 Team PresentationsNOhttps://video.igem.org/w/9VZpofFUyc8r1XsXXuBwLahttps://video.igem.org/lazy-static/thumbnails/ea25573a-5615-41f1-82dc-37a37782d2b2.jpgUManitoba: PLAnet Zero: A Bio-Based Device for the Degradation of Polylactic Acid (2023) - Team P...**Title:** PLAnet Zero: A Bio-Based Device for the Degradation of Polylactic Acid **Description:** Despite being advertised as a compostable plastic, polylactic acid (PLA) plastic is only effectively degraded under very specific temperature and moisture conditions that are not reached in local commercial composting facilities. As a result, PLA is being diverted to landfills, further amplifying plastic pollution. This year, the UManitoba Prairie iGEM team aims to build a proof-of-concept for a bio-based device that improves the rate of PLA breakdown for application in Manitoban composting facilities. First, we searched the literature to identify our candidate enzymes of interest: TTL, MGS0156, Est119, RPA1511, and GEN0105. We then characterized our whole-cell surface-display mechanism in our model chassis while in parallel exploring the use of non-canonical amino acids to improve the enzymatic activity of our PLA-degrading enzymes. By combining the surface-display mechanism and our optimized biological catalysts, PLAnet Zero offers an innovative and sustainable solution to allow for PLA degradation. [Wiki](https://2022.igem.wiki/umanitoba)https://static.igem.org/peertube/streaming-playlists/hls/4852e7b1-407a-4d68-8f1e-e7ed788ca691/d1945788-3697-455f-a70f-e7a7bd595e63-master.m3u8https://video.igem.org/videos/embed/9VZpofFUyc8r1XsXXuBwLa7390212023-10-19T03:38:13.770ZYES2023 Team PresentationsNOhttps://video.igem.org/w/xpeAuf9JLjxhhYqnAESsKShttps://video.igem.org/lazy-static/thumbnails/6e2ed466-5202-41cf-9dc8-8d786aaa90fd.jpgBGI-MammothEdu-China: Luminescent plant Detector for Heavy Metals (2023) - Team Presentation [Eng...**Title:** Luminescent plant Detector for Heavy Metals **Description:** We have developed a synthetic biology-engineered plant capable of detecting cadmium heavy metal elements in soil through plant autoluminescence. This breakthrough innovation is expected to accelerate progress in ecological environment protection and food safety. The project aims to provide a revolutionary environmental monitoring tool that can quickly detect and generate persistent bioluminescent signals in response to trace changes in cadmium heavy metal concentration in soil. This project signifies a new paradigm in plant biosynthesis and will contribute to sustainable development and ecological conservation. [Wiki](https://2022.igem.wiki/bgi-mammothedu-china)https://static.igem.org/peertube/streaming-playlists/hls/fe49c87b-f36e-424a-bbcb-f6a4c9d83a48/0aeea780-0d46-428d-9dcf-3b93bb62c495-master.m3u8https://video.igem.org/videos/embed/xpeAuf9JLjxhhYqnAESsKS8990392023-10-19T03:33:09.280ZYES2023 Team PresentationsNOhttps://video.igem.org/w/in9LCzEZ8S2QiSKtVrJbpchttps://video.igem.org/lazy-static/thumbnails/73d763bc-1108-4ed1-877b-8b180db70b12.jpgManual-KY: PFAS Detection and Characterization -inator (2023) - Team Presentation [English]**Title:** PFAS Detection and Characterization -inator **Description:** PFAS (per and poly fluoroalkyl substances) are an increasingly prevalent threat. PFAS are industrial products that are resilient to degradation and widespread in the environment, including our home state of Kentucky. PFAS are responsible for a variety of human diseases, such as cancers, birth defects, autoimmune responses, and many more characterized and potentially uncharacterized impacts. PFAS testing is also very inaccessible, requiring mass spectroscopy machines that not many places have. Our project combats this problem by creating a gene circuit that causes transformed bacteria to fluoresce in the presence of PFAS, providing an accessible in situ test for PFAS. Additionally, our team also sought to gain a deeper understanding of the methods available to detect PFAS through literature searches of the molecular mechanisms of PFAS toxicity, reverse screening of proteins affected by PFAS, kinetic modeling of our gene circuit, and molecular dynamics modeling of PFAS interactions with potential signal proteins. [Wiki](https://2022.igem.wiki/manual-ky)https://static.igem.org/peertube/streaming-playlists/hls/8c9f617a-fede-46e4-b66a-f73409897429/8bd30a2a-8be1-4fda-9800-93c98c9f980a-master.m3u8https://video.igem.org/videos/embed/in9LCzEZ8S2QiSKtVrJbpc8150402023-10-19T03:47:11.923ZYES2023 Team PresentationsNOhttps://video.igem.org/w/nVA78WB1Mcgfz7joiAYWjRhttps://video.igem.org/lazy-static/thumbnails/f48f201a-5d51-4f23-87c2-cf4d3ac0e7fa.jpgHKU-HongKong: Car-Ma (2023) - Team Presentation [English]**Title:** Car-Ma **Description:** Immunotherapy has been gaining popularity, and examples like CAR-T have been proven efficient in treating liquid cancer. However, in solid tumours, the tumour microenvironment (TME) acts as a physical barrier and prevents phagocytosis. Moreover, M2-like phenotype tumour-associated macrophages (TAMs) in TME would promote tumour growth. Our lab is working on delivering the CAR transgene into the tumour-associated macrophages that target hepatocellular carcinoma. First, we will be knocking out SIRP-alpha through the use of Cas9 gene editing, which enhances phagocytosis. Second, we will be using self-replicating RNA to transfect the CAR into the macrophages, enabling safe and efficient transfection of CAR without any genomic integration. [Wiki](https://2022.igem.wiki/hku-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/b18b59a1-8d92-4c0b-95b4-ac84848a74dd/264f419c-91b8-4e80-a6aa-fc38899bea4b-master.m3u8https://video.igem.org/videos/embed/nVA78WB1Mcgfz7joiAYWjR8630732023-10-19T03:59:41.346ZYES2023 Team PresentationsNOhttps://video.igem.org/w/c9fyhESvvZ8XQRTqL8ZhLChttps://video.igem.org/lazy-static/thumbnails/cdd95ba2-f479-454b-bf71-3fbe49e19614.jpgWUST-China: Plastic Killer (2023) - Team Presentation [English]**Title:** Plastic Killer **Description:** WUST-China incorporated PETase and MHETase into Rhodococcus rhodococcus PD630 to break down PET and yield ethylene glycol (EG) and terephthalic acid (TPA). Additionally, they explored various promoters, signal peptides, and enhancers to enhance the breakdown of PET plastics. At the same time, the method introduced 1,2 dioxygenase to transform degradation-generated TPA into protocatechuic acid PCA, thus enabling Rhodococcus rhodococcus to effectively use PET and accumulate microbial lipids. This allows for microbial oil production through plastic degradation, offering a potential solution to address the global energy crisis. [Wiki](https://2022.igem.wiki/wust-china)https://static.igem.org/peertube/streaming-playlists/hls/5a3b7240-3871-48e1-8df9-41d9fa0e04b4/c17e443a-3751-4a55-98de-256716ca96b7-master.m3u8https://video.igem.org/videos/embed/c9fyhESvvZ8XQRTqL8ZhLC7970262023-10-19T04:09:44.022ZYES2023 Team PresentationsNOhttps://video.igem.org/w/3dw4bLMHmAy3WRJepGx7gEhttps://video.igem.org/lazy-static/thumbnails/100b647b-bb9e-4c13-bec2-65878a84abfd.jpgUSAFA: Lyme-AID: Genetically Engineered Detection of Borrelia burgdorferi, the c... (2023) - Team...**Title:** Lyme-AID: Genetically Engineered Detection of Borrelia burgdorferi, the causative agent of Lyme Disease **Description:** The USAFA iGEM 2023 team is working to improve rapid, on-the-spot, detection technology for Borrelia burgdorferi from an infected tick bite. This lyme sensing biosensor, bandaid-like patch, will be called Lyme-AID. A three-step approach will be used in this biosensor: Attract, Inhibit, and Detect (AID). Attract(1) B. burgdorferi to the biosensor patch and also limit diffusion of the pathogen into the new host through expression of Salp12, an Ioxodes scapularis salivary gland protein that acts as a chemoattractant for B. burgdorferi. We also want to produce the outer surface proteins and primary antigens for B. burgdorferi in genetically engineered E. coli that can be used to stimulate the host immune system and inhibit(2) the pathogen. Finally, detecting(3) B. burgdorferi through an aptamer-mediated biosensor specifically designed to bind to outer surface protein A or C and cause conformational changes in the aptamer/gold nanoparticle resulting in a visual color change. [Wiki](https://2022.igem.wiki/usafa)https://static.igem.org/peertube/streaming-playlists/hls/11f1b97d-2f8c-4812-890d-90a99d05985c/f9320b39-8c29-459e-b5e1-a57093a5d6a8-master.m3u8https://video.igem.org/videos/embed/3dw4bLMHmAy3WRJepGx7gE8700242023-10-19T04:16:50.574ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ohwArAzQSBCTJQbT64D8uwhttps://video.igem.org/lazy-static/thumbnails/5526593c-fb6e-49a5-9aa2-d2f4e344d83e.jpgJiangsu-United: FlexiCarti: Bones and Joints, Healthy Growing (2023) - Team Presentation [English]**Title:** FlexiCarti: Bones and Joints, Healthy Growing **Description:** The prevalence of osteoarthritis (OA) is on the rise due to the aging population and the increasing rate of obesity. OA severely impacts the life quality of patients; unfortunately, no effective therapeutic strategy currently exists owing to its complicated pathology. Recent studies have found that the expression of osteoglycin (OGN) was significantly reduced in the articular cartilage of patients with OA. However, the regulatory role of OGN in OA remains unclear. In this project, we used genetic engineering techniques to construct OGN overexpressed and silencing plasmids, and determined the regulatory effect of OGN on the matrix metabolism of chondrocytes. In the future, our research results may help the development of related drugs for the treatment of OA by regulating the expression of OGN, and do our best to contribute to human health. [Wiki](https://2022.igem.wiki/jiangsu-united)https://static.igem.org/peertube/streaming-playlists/hls/b477ce11-1d09-4a19-a62f-11c03e15554a/c8d954f6-e5e3-4778-9643-d03ad1bbf751-master.m3u8https://video.igem.org/videos/embed/ohwArAzQSBCTJQbT64D8uw8960122023-10-19T05:34:56.243ZYES2023 Team PresentationsNOhttps://video.igem.org/w/81T8GYfCGwJ4zsTjpdVsWuhttps://video.igem.org/lazy-static/thumbnails/9225836b-7330-47a8-83ff-7075851ebd87.jpgCCA-San-Diego: FUMigate: A Novel Salmon Antiparasitic (2023) - Team Presentation [English]**Title:** FUMigate: A Novel Salmon Antiparasitic **Description:** Parasites of freshwater salmonids exert significant economic damages to the aquaculture industry, being associated with an annual cost of some $1.05 billion to $9.58 billion (Shinn et al, 2015). Notwithstanding this economic impact, these parasites are unable to cause notable disease in humans, and are often overlooked in the broader effort to develop antiparasitic diagnostics and therapeutics. The salmon industry, being the fastest-growing means of food production worldwide, is particularly impacted by parasitic infection (Iversen et al, 2020). We aim to produce an antiparasitic natural product within fish by delivering to them a series of genes packaged in environmentally-degradable chitosan nanoparticles. The antiparasitic compound being considered is fumagillin, which has demonstrated activity against the parasitic species Tetracapsuloides bryosalmonae, nucleospora salmonis, loma salmonae, and myxobolus cerebralis. We seek to reconstitute the fumagillin pathway by administering antiparasitic gene therapy to affected fish by delivering genes through the nanoparticles in fish feed. [Wiki](https://2022.igem.wiki/cca-san-diego)https://static.igem.org/peertube/streaming-playlists/hls/38cf7b7c-968e-4a66-b03c-ba57f6da3268/88306c7a-9780-4ff5-91b6-a16e43b9feca-master.m3u8https://video.igem.org/videos/embed/81T8GYfCGwJ4zsTjpdVsWu7300152023-10-19T05:39:37.251ZYES2023 Team PresentationsNOhttps://video.igem.org/w/v5YBE84psJwZ5fqtaeuRRChttps://video.igem.org/lazy-static/thumbnails/ffe11eed-5418-452e-80db-768f63f7cd24.jpgNDSU: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/ndsu)https://static.igem.org/peertube/streaming-playlists/hls/eb8ae2e5-ba1e-4d46-888c-2b5c122ba6b2/851934a9-edbf-46e8-9d90-910aff3e1053-master.m3u8https://video.igem.org/videos/embed/v5YBE84psJwZ5fqtaeuRRC8740122023-10-19T05:41:20.910ZYES2023 Team PresentationsNOhttps://video.igem.org/w/a4XcTZMb17ptJMzYhjNit6https://video.igem.org/lazy-static/thumbnails/2378939d-c3d9-4a17-a645-295e5750aa44.jpgUM-Macau: GEIG: Gluten Enzymatic Intestinal Guardians (2023) - Team Presentation [English]**Title:** GEIG: Gluten Enzymatic Intestinal Guardians **Description:** Celiac Disease (CD) is the worldwide autoimmune gluten intolerance disease. Current treatments include lifelong gluten-free diets and oral enzyme therapy, but these therapies bring inconvenience to patients lives and the latter is still immature. UM-Macau aims to establish a rapid and targeted delivery and adhesion system that releases prolyl endopeptidases through probiotics under the control of NO sensors, as an alleviator of inflammatory-like environmental factors in CD intestine. To accurately deliver probiotics to the duodenal region and adhere to epithelial cells for a longer time, UM-Macau uses microbe-based therapeutics (MBTs) film capsule and inserts adhesion protein genes (Mefp-5 & cp19k) integrated by Pasr promoter according to the relative acidic environment. UM-Macau will conduct a modeling test to predict the colonization on mucus layers and efficiency of bacteria adhesion, set the suicide switch in vitro and population density control system as safety module based on teamperature, quorum sensing and quenching. [Wiki](https://2022.igem.wiki/um-macau)https://static.igem.org/peertube/streaming-playlists/hls/496f8027-e719-49c3-9f1a-068244f14b57/8e12b396-19f0-4266-9e5e-b96868f9bbfc-master.m3u8https://video.igem.org/videos/embed/a4XcTZMb17ptJMzYhjNit68000112023-10-19T05:43:41.915ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pVwrsY9bdJBpx2CjSA7A32https://video.igem.org/lazy-static/thumbnails/8eb30395-38f4-47f6-b417-51820e1bc395.jpgCU-Boulder: Milking the New Whey (2023) - Team Presentation [English]**Title:** Milking the New Whey **Description:** Bovine milk production significantly contributes to global warming, largely due to cow methane production. This research begins to solve this problem by using the more sustainable organism, soybeans, to generate a genetically equivalent form of whey protein found in bovine milk. Soybean fields use less land, energy, and produce fewer greenhouse gasses than milk farms, making them more sustainable for milk production. This research uses synthetic biology techniques to bioengineer the whey proteins alpha-lactalbumin and beta-lactoglobulin in soybeans. This is done by engineering a DNA plasmid containing the alpha-lactalbumin or beta-lactoglobulin coding region, a promoter and terminator specific to soybeans, and a GUS reporter gene. This plasmid is then transformed into Agrobacterium which will naturally insert the synthetic plasmid into a soybean seed. The transfected soybean seed will then have the machinery to produce whey proteins. Producing whey proteins in soybeans is the first step to sustainably produce bovine milk. [Wiki](https://2022.igem.wiki/cu-boulder)https://static.igem.org/peertube/streaming-playlists/hls/c1bb5e22-ff0e-4507-b36a-b0b5496ff70d/30286758-8bbb-46cf-a7fe-e55034311f04-master.m3u8https://video.igem.org/videos/embed/pVwrsY9bdJBpx2CjSA7A327900112023-10-19T05:45:59.221ZYES2023 Team PresentationsNOhttps://video.igem.org/w/gpeXYdJz5tcBJ8t34ZJSKYhttps://video.igem.org/lazy-static/thumbnails/5eb51891-a8d1-40af-b772-aa145277270d.jpgCanton-HS: Construction of Norovirus and Rotavirus Dual Vaccine Based on Genetic... (2023) - Team...**Title:** Construction of Norovirus and Rotavirus Dual Vaccine Based on Genetic Engineering Method **Description:** Norovirus, which is the most common aetiologic agent of AGE has resulted more than 50,000 child deaths per year. Meanwhile, it has also create large financial burden to both the society and households. Unfortunenately, there is still no available vaccine provided for infants and young children to preventIntr them from norovirus injection. Therefore, it becomes increasingly significant for the society to design a safe and effective vaccine for children. Our wet team aims to construct a plasmid that contain the gene of Norovirus. Through transforming our designed plasmid into Nissle 1917 probiotics, it is thus able to express the viral protein and activate immune response. Eventually, the final product is an oral vaccine for young children. We believe this product will ease the economic burden for people andreduce the death rate due to Norovirus. [Wiki](https://2022.igem.wiki/canton-hs)https://static.igem.org/peertube/streaming-playlists/hls/7cb7caf7-86dc-4a2a-a15b-45f976e315fe/53b7a7b8-df64-4702-8a5d-1ba8ad4b874e-master.m3u8https://video.igem.org/videos/embed/gpeXYdJz5tcBJ8t34ZJSKY8990152023-10-19T05:49:13.266ZYES2023 Team PresentationsNOhttps://video.igem.org/w/xcq6ozuNuUhCGwrAZZjNE7https://video.igem.org/lazy-static/thumbnails/2ece864b-62ce-4566-8571-55db8f054c8c.jpgOKstate: CH4NGERS: A Novel Approach to Methane Mitigation (2023) - Team Presentation [English]**Title:** CH4NGERS: A Novel Approach to Methane Mitigation **Description:** In the face of climate change, one of the most pressing challenges of our time, it is imperative that we address the issue of methane, a highly potent greenhouse gas with approximately 25 times the heat-trapping capacity of CO2. Recognizing the urgent need for a more effective solution, our iGEM team is passionately committed to developing an innovative approach that will substantially reduce methane emissions from dairy digesters. Our focus lies in adapting the plasmid sequence for Methane Monooxygenase (MMO), an enzyme that is able to convert methane into methanol, to suit the specific characteristics of E. coli, our chosen host organism. Optimizing the plasmid sequence is crucial to achieve high-level expression of MMO in E. coli. By tailoring the plasmid to the unique features of E. coli, we aim to maximize protein yield and ensure efficient conversion of methane to methanol. [Wiki](https://2022.igem.wiki/okstate)https://static.igem.org/peertube/streaming-playlists/hls/fca353e5-56c6-4696-93d6-e9b1ae25ee1a/e676d82c-21b1-47f7-99ec-63363c125133-master.m3u8https://video.igem.org/videos/embed/xcq6ozuNuUhCGwrAZZjNE78940122023-10-19T05:51:50.122ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pSerbA3VsLa1MYoCrTkUbRhttps://video.igem.org/lazy-static/thumbnails/373945d2-4047-4abd-a786-9e798e753e75.jpgSCIE-PearlDelta: CSF rhinorrhea test kit (2023) - Team Presentation [English]**Title:** CSF rhinorrhea test kit **Description:** A CSF (cerebrospinal fluid) rhinorrhea is the leakage of CSF through the nostrils when there is a fistula between the dura and the skull base. The current diagnostic methods of CSF rhinorrhea are relatively time-consuming, complex, and unspecific, which can cause delayed diagnosis and lead to risk of infected. In our project, we use genetic engineering technique to create a complex of Beta-2-transferrin and mCherry to develop the Beta-2-transferrin detection kit. Because of Beta-2-transferrin's high specificity, it would be a detection marker for accurately confirming the presence of CSF. In the future, our project could be a convenient, accurate, fast, and user-friendly kit to help people quickly test for CSF rhinorrhea as a timly warning. [Wiki](https://2022.igem.wiki/scie-pearldelta)https://static.igem.org/peertube/streaming-playlists/hls/c145a823-47f9-4eea-8fe5-c627b8324f8d/3f5cd861-19b1-4dd7-9a3e-809f7edde1c9-master.m3u8https://video.igem.org/videos/embed/pSerbA3VsLa1MYoCrTkUbR8880132023-10-19T06:12:32.409ZYES2023 Team PresentationsNOhttps://video.igem.org/w/eVTW1gtQAPMY4wQUr51egrhttps://video.igem.org/lazy-static/thumbnails/767a62c4-b9dc-40bb-aa12-5f7261594ec7.jpgGuelph: Project BloomBiota: Combatting vitamin B12 Deficiency with probiotic-exp... (2023) - Team...**Title:** Project BloomBiota: Combatting vitamin B12 Deficiency with probiotic-expressed gastric intrinsic factor **Description:** Project BloomBiota aimed to create a probiotic containing enriched B12 and human gastric intrinsic factor (hGIF) to combat vitamin B12 deficiency, which disproportionately affects women, vegetarians, and the elderly. Through one pill containing the probiotic strain of Escherichia coli Nissle 1917, an individual receives a B12 supplement and increased absorption. BloomBiota is novel because it aims to express hGIF in the bacterial periplasm instead of the cytoplasm, which increases the chances for proper folding, resulting in a functional protein. Ultimately, the project's goal was not achieved. However, several new parts were contributed to the registry and an impressive and affordable model of a probiotic pill-packing machine was created. When attempting to transform E. coli Nissle 1917 with a BAC containing the B12 cluster and the plasmid containing hGIF, it would be advisable to use CRISPR to remove the pre-existing plasmids, allowing facilitated uptake of the large, engineered BAC. [Wiki](https://2022.igem.wiki/guelph)https://static.igem.org/peertube/streaming-playlists/hls/70cd39e0-1b72-4f8e-b418-8d41c9bb4033/b1711834-9d83-4091-89c6-7349245b4097-master.m3u8https://video.igem.org/videos/embed/eVTW1gtQAPMY4wQUr51egr8880152023-10-19T06:15:05.146ZYES2023 Team PresentationsNOhttps://video.igem.org/w/kFdbs93oCwiYf6NrNVA1Tvhttps://video.igem.org/lazy-static/thumbnails/c56af27c-0997-44c1-b199-f1959bbccfbb.jpgUNILA-LatAm: MHETYGU : Microalgae of the species Chlamydomonas reinhardtii as de... (2023) - Team...**Title:** MHETYGU : Microalgae of the species Chlamydomonas reinhardtii as degration devices of PET-type microplastics **Description:** Microplastic contamination from various sources is a serious environmental threat. These tiny plastic fragments, less than 5 mm in size, disperse widely, posing dangers to marine life, the food chain and potentially human health. Research has focused on the detection and solution of this problem, highlighting the need to reduce plastic consumption, improve waste management and develop sustainable alternatives. Our research introduces an innovative approach that uses the microalgae Chlamydomonas reinhardtii to express recombinant enzymes that degrade PET. We aim to transform the microalgae Chlamydomonas reinhardtii through glass pearls to be able to perform the degradation of plastics, from the transfer of genes responsible to this function. By incorporating genes for the enzymes MHETase and FAST-PETase with a flexible linker, we improved the activity and secretion of enzymes in C. reinhardtii. This promising approach has the potential to mitigate microplastic pollution in aquatic ecosystems and protect the environment. [Wiki](https://2022.igem.wiki/unila-latam)https://static.igem.org/peertube/streaming-playlists/hls/9f5725db-1fce-4f8a-9cda-d8482dcf544b/1fa93223-9abe-4aac-b764-052a83e36001-master.m3u8https://video.igem.org/videos/embed/kFdbs93oCwiYf6NrNVA1Tv8350442023-10-19T06:34:35.517ZYES2023 Team PresentationsNOhttps://video.igem.org/w/kbdawVyrHYcs8KfaHtVnv2https://video.igem.org/lazy-static/thumbnails/68c9a008-4515-493a-aaaa-207ba2f247b6.jpgUMaryland: CerviCare (2023) - Team Presentation [English]**Title:** CerviCare **Description:** Cervical cancer remains a significant health burden, especially in regions with limited access to diagnostic facilities. In this iGEM project, we will be developing an easy-to-use point of care device that can provide a reliable color-based output utilizing red fluorescent protein upon detecting specific miRNAs associated with cervical precancer while leveraging three heavily upregulated microRNAs (miR-21, miR-199a, and miR-155-5p) in the urine of patients. The proposed screening device combines toehold switch technology and RNA synthetic devices. Toehold switches serve as molecular recognition elements, enabling target miRNAs detection with high sensitivity and specificity. We can trigger a visual color response when the target miRNAs are present in the patient's urine. Through careful design and optimization, we aim to produce a low-cost device that requires minimal training to operate, enabling its use in resource-limited areas. [Wiki](https://2022.igem.wiki/umaryland)https://static.igem.org/peertube/streaming-playlists/hls/9b4a919c-9d6e-498a-9f49-267eec72885f/c851c446-39db-499b-b4f6-bd03ed4a815b-master.m3u8https://video.igem.org/videos/embed/kbdawVyrHYcs8KfaHtVnv28620142023-10-19T06:37:07.050ZYES2023 Team PresentationsNOhttps://video.igem.org/w/knf28E2s7oPQjsJCruP3qshttps://video.igem.org/lazy-static/thumbnails/cc776cac-68d1-44a2-93ed-cb8749e565f5.jpgBostonU-HW: APUS: The Automated Plug-and-Playable -fluidic System for Cellular C... (2023) - Team...**Title:** APUS: The Automated Plug-and-Playable -fluidic System for Cellular Communication **Description:** The academic study of Synthetic Biology revolves around reengineering biological processes to create innovative solutions. Importantly, this field involves using microorganisms and microbiomes for new therapies in healthcare. Moreover, microbes can be engineered to produce therapeutic compounds and help treat conditions like inflammatory bowel disease and mental health disorders. However, testing and identifying microbial therapeutic signaling pathways provides a significant challenge due to the vast possibilities of combinations. This process is laborious and time consuming. This is where APUS draws inspiration. The APUS hardware platform aims to assist scientists in designing and testing microbial therapies efficiently. The device facilitates rapid screening and discovery of synthetic microbial communities, while addressing challenges like interspecies competition. By optimizing a hardware system for biological pathway testing via an automated, plug-and-play system, and enabling long-term, continuous-flow experimentation, this platform accelerates the development of new therapeutic pathways, with the potential to revolutionize the biotechnology industry. [Wiki](https://2022.igem.wiki/bostonu-hw)https://static.igem.org/peertube/streaming-playlists/hls/9cd4e4bf-5002-47c4-bb74-02b16c46b78a/472fe159-73f2-442b-9f92-93e2f912a78c-master.m3u8https://video.igem.org/videos/embed/knf28E2s7oPQjsJCruP3qs8820172023-10-19T06:48:26.930ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fnrZLzQMVuZ2VF28hMCoCrhttps://video.igem.org/lazy-static/thumbnails/efdb1b59-2702-4774-92f6-d67530cb0914.jpgBJYUAN-CHINA: A small device based on a butyrate microbial sensor for monitoring... (2023) - Team...**Title:** A small device based on a butyrate microbial sensor for monitoring intestinal health **Description:** In present study, firstly a butyrate microbial sensor was developed by inserting the designed plasmid (mainly with fluorescent protein and butyrate recognizing promoter) into the E. coli. Secondly, a small device was developed with a determination chip, optical parts for excitation and emission of fluorescence, temperature control module, display screen, power supply, optoelectronic conversion module and data processing module. Finally, the genetic engineering bacterial solution was added into the chip and incubated with a series of sodium butyrate solution. The digital signal was recorded by the small device. A calibration curve (digital signal versus sodium butyrate concentration) was plotted with the linear range of 5.0 60 mM and could be used to calculate the butyrate level in real samples. Based on a large amount of clinical data collection in the future, it is expected to provide a convenient and sensitive device for intestinal health monitoring in hospital or at home. [Wiki](https://2022.igem.wiki/bjyuan-china)https://static.igem.org/peertube/streaming-playlists/hls/745e94bd-cfd3-4521-815a-24a5435b4809/705a0e14-a9aa-4611-b72c-da8d6de8f14c-master.m3u8https://video.igem.org/videos/embed/fnrZLzQMVuZ2VF28hMCoCr7040272023-10-19T06:50:33.191ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vh94HtLaLQDbuzPmf5HeEYhttps://video.igem.org/lazy-static/thumbnails/a0a37617-9dea-4932-a8b4-06dd074b07fe.jpgRBHS-SanDiego-CA: Toxoplasma GONEdii (2023) - Team Presentation [English]**Title:** Toxoplasma GONEdii **Description:** Toxoplasma gondii is a protozoan parasite that readily infects warm blooded mammals, and is a growing contaminant as a waterborne zoonosis. Additionally, Toxoplasma gondii has an increased prevalence in cats, resulting in transmission to humans and other mammals due to contact with contaminated cat feces. However, there is no current vaccine or drug able to be set as a treatment for T. gondii. In order to address these issues, development of a vaccine to prevent transmission of T. gondii into the environment is necessary in the absence of an effective human model of a vaccine to prevent exposure. We deliver a bacterium within the feline s food which will produce a phage acting as a carrier for a known T. gondii antigen. The phage will be accepted and transitized once in the small intensive traveling into the lymph producing an immune response and antibodies that will prevent oocyst shedding. [Wiki](https://2022.igem.wiki/rbhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/ed19e41f-c439-42d7-95f8-9c21df33ba90/76861924-7091-4e6e-8103-88b9626a26d2-master.m3u8https://video.igem.org/videos/embed/vh94HtLaLQDbuzPmf5HeEY762092023-10-19T06:52:48.752ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7jm5UBxCmmWVMPMg41ZyRyhttps://video.igem.org/lazy-static/thumbnails/eae85381-4663-4dc9-91d0-628084e1d132.jpgOUC-China: Turn waste cooking oil into MCAFs and their derivatives (2023) - Team Presentation [En...**Title:** Turn waste cooking oil into MCAFs and their derivatives **Description:** 2023 OUC-China igem team focuses on the green production of medium chain fatty acids and their derivatives.Firstly, MEL (Mannose-erythroitol) is produced by Moesziomyces aphidis XM01 using waste cooking oil as substrate, and a large number of medium chain fatty acids are obtained by hydrolyzing MEL. Due to the coexistence of different fatty acid pathways in XM01 strain, a large amount of MEL is formed and the accumulation of intracellular oil is caused. So the carbon flow is reconstructed to reduce the production of intracellular oil. In addition, two high-value medium chain fatty acid derivatives, alpha-olefin and 10-hydroxycapric acid, are produced by E.coli BL21. After communicating with relevant experts, it was found that benzopyrene in waste cooking oil was often difficult to degrade, so a red light system is designed to secrete corresponding enzymes to complete the degradation of this substance. [Wiki](https://2022.igem.wiki/ouc-china)https://static.igem.org/peertube/streaming-playlists/hls/332698ef-10b0-48fe-b71e-06c9264adec2/de957e1d-7cf2-4402-a213-be97e2b23d2e-master.m3u8https://video.igem.org/videos/embed/7jm5UBxCmmWVMPMg41ZyRy9000512023-10-19T06:56:09.918ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4PiEYziZhE4ettpntbJxvAhttps://video.igem.org/lazy-static/thumbnails/57ed79cd-73b7-43a7-9960-5378b52adc71.jpgUConn: Degradation of 17 -ethynylestradiol by Genetically Engineering the CotA L... (2023) - Team...**Title:** Degradation of 17 -ethynylestradiol by Genetically Engineering the CotA Laccase Gene of Bacillus licheniformis **Description:** The synthetic estrogen hormone 17 -ethynylestradiol (EE2) is a common degradation-resistant pharmaceutical that causes fertility disruption in aquatic organisms. EE2 enters waterways through sewage effluent and run-off from livestock activities. Wastewater treatment facilities provide an important role in reducing EE2, however, the degradation process is often incomplete. We aimed to design a bacterium that can more completely degrade EE2 in the wastewater treatment system. We focused on the laccase-producing gene from Bacillus licheniformis that has been shown to degrade textile dyes. Laccases broadly degrade phenolic compounds,with potential to degrade EE2. The B. licheniformis laccase sequence was obtained from NCBI, and ordered as a IDT gblock flanked with matching restriction enzymes that would work with a pET22b(+) vector, and codon optimized to E. coli. competent cells. After successful ligation and transformation, we planned to utilize mass spectrometry to analyze degradation of EE2 added to cultures of our constructed bacterium. [Wiki](https://2022.igem.wiki/uconn)https://static.igem.org/peertube/streaming-playlists/hls/1ee64390-4f51-4cf7-af4b-9b002f974ce0/0429ae59-0406-48ed-a704-8a36a5b89527-master.m3u8https://video.igem.org/videos/embed/4PiEYziZhE4ettpntbJxvA6590122023-10-19T06:58:36.502ZYES2023 Team PresentationsNOhttps://video.igem.org/w/jL6733pZr6cQ9N4HVC6Vsshttps://video.igem.org/lazy-static/thumbnails/cdfb5de8-3182-4e4e-8953-a650cb3048da.jpgBIBS-beijing-china: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/bibs-beijing-china)https://static.igem.org/peertube/streaming-playlists/hls/97ec5e03-ce1c-4dd8-a9ec-2bb58c9c175a/6f906bce-dbb8-43d2-a435-47dc73b0e2d2-master.m3u8https://video.igem.org/videos/embed/jL6733pZr6cQ9N4HVC6Vss8660202023-10-19T07:01:36.968ZYES2023 Team PresentationsNOhttps://video.igem.org/w/kQDva5bGMbet2x4fbx4S4khttps://video.igem.org/lazy-static/thumbnails/7c093f67-d3dc-45d9-8c22-dc99c7376981.jpgNJU-China: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/nju-china)https://static.igem.org/peertube/streaming-playlists/hls/a0a87286-0bf0-411e-b232-d0300d8eb171/87d2558d-7a8b-4ad0-be71-8bae28615cfd-master.m3u8https://video.igem.org/videos/embed/kQDva5bGMbet2x4fbx4S4k9000322023-10-19T08:03:11.066ZYES2023 Team PresentationsNOhttps://video.igem.org/w/paqUTfkoRpn1RwfVes8uAnhttps://video.igem.org/lazy-static/thumbnails/f9bff92b-3ef9-49fc-ab17-9ec33e9dc7e1.jpgASU: Beta-FluorinX (2023) - Team Presentation [English]**Title:** Beta-FluorinX **Description:** Our Team is focused on per- and polyfluoroalkyl substances (PFAS), man-made fluorinated organic compounds whose widespread use, environmental persistence, and bioaccumulative behavior have led them to be dubbed forever chemicals. This constant exposure to PFAS has adverse health consequences, including, but not limited to, increased risk of cancer, hormone interference, and high blood pressure during pregnancy. Arizona, in particular, is severely impacted by PFAS contamination of water. Our solution focuses on the expression of an ectopic metabolic cascade, that, combined with genomic engineering and a defluorinating enzyme library, creates a novel and sustainable approach to the PFAS contamination issue. We address the concerns of community members and offer information out to our stakeholders. We hope to someday create a water filtration system containing our modified bacteria, as a way to sustainably and renewably bioremediate polluted waterways. [Wiki](https://2022.igem.wiki/asu)https://static.igem.org/peertube/streaming-playlists/hls/bb933c4c-8ecb-4699-b169-c63e605069d1/839adbee-4fdd-45a8-8958-1442a0355249-master.m3u8https://video.igem.org/videos/embed/paqUTfkoRpn1RwfVes8uAn7650202023-10-19T08:21:37.674ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pBa99Cm9eJ9nA96c2Q1gkkhttps://video.igem.org/lazy-static/thumbnails/8910bc78-8b7a-40f6-aa74-c49232636e86.jpgNMU-China: Gut-Sweeper: an engineered E. coli that integrates prevention, monito... (2023) - Team...**Title:** Gut-Sweeper: an engineered E. coli that integrates prevention, monitoring and treatment of constipation **Description:** Functional constipation is prevalent among the elderly, which gains an increasing concern as the population ages. In keeping with our view of local people solve local problems , we have designed our Gut-Sweeper, namely, an engineered E. coli that integrates prevention, monitoring, and treatment of constipation. We firstly empowered our engineered bacteria with monitoring ability by the butyrate sensory module, which can detect a distinct lowered butyrate concentration, a research-proven constipation marker. The treatment role of our engineered bacteria is then established by the introduction of the metabolic module, which can catalyze serotonin synthesis, thereby promoting intestinal motility. Considering that our engineered bacteria still need to achieve a longer period of colonization to reach preventive capacity, we designed a quorum sensing module, cooperating with our tannin mucin encapsulation to allow colonization for days and strictly control the population density simultaneously. [Wiki](https://2022.igem.wiki/nmu-china)https://static.igem.org/peertube/streaming-playlists/hls/bf2adaaa-3e52-4fd5-bff8-e0111b401b5d/3c49e031-3291-4346-a05a-14950641b7d7-master.m3u8https://video.igem.org/videos/embed/pBa99Cm9eJ9nA96c2Q1gkk7890862023-10-19T08:24:43.419ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4JVPpssLJkanfcWuPFgRRmhttps://video.igem.org/lazy-static/thumbnails/d8136762-02a0-4de1-b64c-dc01608d1d35.jpgMingdao: Thermostable PCLase-embedded biodegradable PCL plastics (2023) - Team Presentation [Engl...**Title:** Thermostable PCLase-embedded biodegradable PCL plastics **Description:** Biodegradable plastics, especially FDA-approved PCL, are becoming increasingly popular as eco-friendly alternatives. However, PCL takes 2-3 years to decompose. Materials embedded with PCL-degrading lipase (PCLase) are gaining interest to address this challenge. Yet, the enzyme activity in the composite cannot tolerate during the thermoforming manufacturing process at 100 C. Mingdao iGEMers employ SpyRing method to enhance thermostability by cyclizing PCLase. This innovative material represents a significant step towards environmental sustainability. [Wiki](https://2022.igem.wiki/mingdao)https://static.igem.org/peertube/streaming-playlists/hls/1e49d207-10cc-4d6b-a3ce-917828bb763a/edffa00f-40a8-4610-9b27-fff26a10afe8-master.m3u8https://video.igem.org/videos/embed/4JVPpssLJkanfcWuPFgRRm8470212023-10-19T08:40:05.734ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5DAxm1YsivGJBqYLeirB8Ghttps://video.igem.org/lazy-static/thumbnails/06d358a8-6f69-45d6-a17a-ef430cb23c65.jpgMIT: CAR-P Diem: Seize the day! (2023) - Team Presentation [English]**Title:** CAR-P Diem: Seize the day! **Description:** Cancer cachexia is a severe muscle and fat wasting disease which directly causes 30% of cancer-related deaths, yet it is strikingly understudied. No treatments exist beyond exercise and diet regimens in the United States. The MIT iGEM team proposes CAR-P Diem: a therapy using macrophages equipped with a chimeric antigen receptor that specifically recognizes and phagocytoses interleukin 6 (IL-6) via an extracellular anti-IL6 antibody. The reduction of IL-6 in a patient s body would address overstimulated inflammatory signaling cascades and reduce cachectic symptoms from its root cause. We have experimentally demonstrated that our CAR-P specifically binds IL-6; we plan to achieve a proof-of-concept of phagocytosis in our future steps. We ultimately hope CAR-P Diem can work in tandem with cancer treatment to help patients continue to fight their cancer, and we anticipate that CAR-P Diem may be broadly applicable for treating other IL-6 based inflammatory conditions! [Wiki](https://2022.igem.wiki/mit)https://static.igem.org/peertube/streaming-playlists/hls/25a45c45-04a6-4d71-b531-bb30fa972fc2/445990a9-d3e8-4f82-a424-6ca8aaf407a3-master.m3u8https://video.igem.org/videos/embed/5DAxm1YsivGJBqYLeirB8G8540402023-10-19T08:45:45.133ZYES2023 Team PresentationsNOhttps://video.igem.org/w/3Q435of25Cf6aF7P8ypas5https://video.igem.org/lazy-static/thumbnails/0f1404a3-aa62-4253-be49-da78ab5642b5.jpgConcordia-Montreal: SYNCOVA: screening method for early & sensitive detection of... (2023) - Team...**Title:** SYNCOVA: screening method for early & sensitive detection of ovarian cancer with therapeutic implications **Description:** Ovarian cancer accounts for the most deaths amongst all gynecological cancers. A staggering 80% of patients are diagnosed in the late stages of this illness, which is mostly due to its seemingly benign symptoms and the lack of a standard screening test. Those who are diagnosed in the late stages of ovarian cancer have between 15% to 25% chance of surviving past five years. Therefore, our team has set out to create a sensitive biosensor that detects early ovarian cancer biomarkers. Our design consists of a lateral flow assay coupled with a thermal method to increase sensitivity. We aim to detect ovarian cancer stem cell biomarkers, which are present in the early stages of cancer. We are incorporating the expression of antigens and antibodies in S.cerevisiae for sustainable experimenting and simulation of cancer stem cells. Additionally, our design includes CAR T-cell immunotherapy modeling as a targeted treatment for ovarian cancer. [Wiki](https://2022.igem.wiki/concordia-montreal)https://static.igem.org/peertube/streaming-playlists/hls/16e7d961-dbbf-43f6-8c8a-7bb19e2f48e4/7a003cbb-f65f-4a2c-b7cd-cbe07de3ca09-master.m3u8https://video.igem.org/videos/embed/3Q435of25Cf6aF7P8ypas58990262023-10-19T09:30:46.751ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1RoCX8mPVAoFewBNgGBkXPhttps://video.igem.org/lazy-static/thumbnails/1e2f300c-a8a9-4fc8-9e04-2a1ab67fd10c.jpgNYCEmpireState: Aptamers for the Detection of Stress-Related Salivary Biomarkers (2023) - Team Pr...**Title:** Aptamers for the Detection of Stress-Related Salivary Biomarkers **Description:** Our motivation was to create an inexpensive and non-invasive aptamer-based approach to assess saliva samples to detect acute stress by clinicians in order to diagnose patients. Through collaboration, we obtained labeled DNA probes with specificity to alpha-amylase. We used an EMSA to visualize the binding of those probes to our protein. We also began work on synthesizing a plasmid to express alpha-amylase in the lab for future experiments. We were able to show a specific interaction between the alpha-amylase and aptamer complex within a polyacrylamide gel. The interaction of the protein-DNA complex traveled a shorter distance versus probe and protein alone. The study shows that synthetic DNA oligonucleotides make for an equally efficient method to detect alpha-amylase versus the traditional ELISA antibody. In the future, we will apply this method to human samples via saliva collection which is less invasive than a blood draw. [Wiki](https://2022.igem.wiki/nycempirestate)https://static.igem.org/peertube/streaming-playlists/hls/06e56533-f9d3-446c-8114-3c7a004a13a9/16f6e62c-24fe-4ef7-b7aa-6856099baf31-master.m3u8https://video.igem.org/videos/embed/1RoCX8mPVAoFewBNgGBkXP8970212023-10-19T11:15:52.672ZYES2023 Team PresentationsNOhttps://video.igem.org/w/gBdhwhqnPtdQKhKuGjxuSNhttps://video.igem.org/lazy-static/thumbnails/52435447-92e8-441e-97f3-187ace04fdca.jpgUChicago: GLOW: Green Levothyroxine Optimized with Transaminases (2023) - Team Presentation [Engl...**Title:** GLOW: Green Levothyroxine Optimized with Transaminases **Description:** The project transaminase-mediated synthesis of levothyroxine aims to innovate levothyroxine production, a critical drug for hypothyroidism treatment. Traditional methods involve low yields and environmental challenges, notably the need for racemate resolution. By integrating transaminase enzymes known for high substrate specificity and stereoselectivity, we intend to simplify the synthesis process, improve yield, and reduce byproducts. Our team's multi-disciplinary approach focuses on optimizing the L-tyrosine-based synthesis pathway for levothyroxine, with the ultimate goal of setting new standards in sustainable pharmaceutical production. [Wiki](https://2022.igem.wiki/uchicago)https://static.igem.org/peertube/streaming-playlists/hls/7e63aec3-3950-4a11-bc1a-d06c9f68a2ea/fb6ab8f6-1e20-45a9-9d85-e416d498c97d-master.m3u8https://video.igem.org/videos/embed/gBdhwhqnPtdQKhKuGjxuSN8320222023-10-19T11:23:37.733ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8mMEQK3QpCyHvHGAReZ9FZhttps://video.igem.org/lazy-static/thumbnails/5c2cd088-4bb8-4b7e-b864-2cb54c9ec1a5.jpgNanjing-SDG: Directed Evolution of Clostridium Tyrobutyricum to Improve Butyl Bu... (2023) - Team...**Title:** Directed Evolution of Clostridium Tyrobutyricum to Improve Butyl Butyrate Production **Description:** The increasing depletion of traditional energy and the greenhouse effect pose challenges to global sustainable development. Butyl butyrate s low viscosity and low carbon emission make it a biofuel with a high potential of alleviating the above problems. We genetically engineered C. tyrobutyricum to enable efficient and large-scale synthesis of butyl butyrate. We optimize metabolic pathways through three strategies to further reinforce the synthesis of butyrate and butanol, including precursor accumulation, inhibition of byproducts, and increasing mass transfer efficiency as well as promoter engineering. The results showed that yields of butyl butyrate can be improved to varying degrees, which indicated that it is a promising way to improve the biosynthesis efficiency of butyl butyrate. [Wiki](https://2022.igem.wiki/nanjing-sdg)https://static.igem.org/peertube/streaming-playlists/hls/3b96fdae-d569-40fc-8303-7decc9db6a07/c7d79167-133b-41dc-8a58-244d3a53d77d-master.m3u8https://video.igem.org/videos/embed/8mMEQK3QpCyHvHGAReZ9FZ7650612023-10-19T14:36:20.977ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hbmofDQSpTzRs1y61iYepdhttps://video.igem.org/lazy-static/thumbnails/b6817d58-a10f-4ddc-85a2-e00fc4704c35.jpgTianjin: Wind-up cell A novel microbial biocontainment system using epigenetic-m... (2023) - Team...**Title:** Wind-up cell A novel microbial biocontainment system using epigenetic-modification-based kill switch. **Description:** In synthetic biology, cells are redesigned into engineered microbes and we can see an increasing use of engineered organisms for various applications. This poses a risk of spreading genetically modified microorganisms into the environment, reducing biodiversity and disrupting existing ecological balance, hurting the ecosystem. To address these concerns, Tianjin 2023 project, 'Wind-up Cell: A Novel Microbial Biocontainment System Using an Epigenetic-Modification-Based Kill Switch,' introduces a novel application scenario, making the applications of synthetic biology safer. Our project aims to construct a kill switch based on epigenetic modifications and develop whole-cell test papers carrying this kill switch. When the kill switch is triggered, the wind-up cell initiates a countdown to death, progressing towards its inevitable demise while carrying out its designated function. This approach enables the engineered strain to accomplish their specified functions while minimizing their effect on the natural ecological balance. [Wiki](https://2022.igem.wiki/tianjin)https://static.igem.org/peertube/streaming-playlists/hls/830437d8-0b8a-4f9c-936c-fbc6ce1cf626/678fa97b-9220-46cb-805b-e5c158683f7c-master.m3u8https://video.igem.org/videos/embed/hbmofDQSpTzRs1y61iYepd8980302023-10-19T18:06:08.308ZYES2023 Team PresentationsNOhttps://video.igem.org/w/51HM5bZ914uESpA4rmwhgwhttps://video.igem.org/lazy-static/thumbnails/1e8d00cc-d5f6-46a8-8120-fce07e0feab3.jpgSJTU-software: Directed Ago Renewal With Ideal proteiN thermal-Stability (DARWINS) (2023) - Team ...**Title:** Directed Ago Renewal With Ideal proteiN thermal-Stability (DARWINS) **Description:** COVID-19 has caused a large number of deaths worldwide, regardless of each country's economic situation. and has served as a stark reminder of the paramount importance of precise and rapid disease detection. While CRISPR systems struggle in precise and rapid detection, Argonaute efficiently recognize and cleave both DNA and RNA, making them ideal for nucleic acid sensing platforms and virus detection. However, most AGO proteins suffer from thermal instability, thus leading to unreliable results limited biotechnological applications. Based on this, we developed DARWINS that can predict protein thermal stability accurately with just the protein sequence as input, reducing prediction time. We use DARWINS to facilitate development of AGO with high thermal stability, promoting a new virus detection system. Moreover, our software is designed for diverse proteins, as our method being promoted widely with the help of our software, researchers worldwide are empowered to assess the thermal stability of any protein. [Wiki](https://2022.igem.wiki/sjtu-software)https://static.igem.org/peertube/streaming-playlists/hls/207e4cfa-7da3-4e45-ba98-c7e136bfb314/0d7082fa-f831-42a4-8b15-2c601233ef58-master.m3u8https://video.igem.org/videos/embed/51HM5bZ914uESpA4rmwhgw8940722023-10-19T15:31:57.367ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hsvKtVjxKz4Bj2hn5aMeughttps://video.igem.org/lazy-static/thumbnails/f40de564-20d2-4fc0-b510-89d7a1d7406d.jpgMcMaster-Canada: BACTRACK: AN INGESTIBLE BIOSENSOR FOR THE CHARACTERIZATION OF G... (2023) - Team...**Title:** BACTRACK: AN INGESTIBLE BIOSENSOR FOR THE CHARACTERIZATION OF GUT METABOLITES RELATED TO MAJOR DEPRESSIVE DISORDER **Description:** Ambiguity in the DSM criteria of major depression disorder (MDD) exacerbates the challenges that clinicians and scientists face in its clinical assessment and research. Investigations of biomarkers related to MDD have highlighted the importance of the gut-brain axis in influencing mental health. An increase in Indole and a decrease in butyrate, tetrahydrofolate, and hydrogen peroxide concentrations has been noted in individuals with MDD, while tetrathionate is highly positively correlated with gut inflammation. The long-term goal of this project is to develop an E. coli multi-input ingestible biosensor for the characterization of these five metabolites implicated in MDD. An ingestible biosensor enables direct surveillance of the gut lumen, providing vital information on the microbiome which stool and serum samples cannot capture. Our proposed biosensor utilizes DNA writing with CRISPR based editors for molecular recording of signals, and pH detection as a means to establish temporal and spatial specificity in the gut. [Wiki](https://2022.igem.wiki/mcmaster-canada)https://static.igem.org/peertube/streaming-playlists/hls/8545e3f5-e462-4c78-aec8-8897085a2a93/229b30f1-1cb0-47ff-a975-6f4a005ec617-master.m3u8https://video.igem.org/videos/embed/hsvKtVjxKz4Bj2hn5aMeug8640322023-10-19T16:43:02.866ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cVuMYh59eXGB3UiNqCEZuChttps://video.igem.org/lazy-static/thumbnails/18d058d7-9e93-46a1-aeda-8fb05bc20a9a.jpgCUG-China: An arsenic-specific and sensitive biosensor with genetically engineer... (2023) - Team...**Title:** An arsenic-specific and sensitive biosensor with genetically engineered Shewanella oneidensis in a bioelectrochemical system **Description:** Arsenic (As) is a toxic metalloid and is widespread in diverse natural environments, ranging from groundwater, and atmosphere to soil. Hundreds of millions of people in more than 70 countries around the world face the threat of the high arsenic groundwater. Therefore, rapid and specific detection of arsenic is of significance to monitor and assess its presence in the ecosystems wherein. Electrochemically active biofilms (EABs)-enabled biosensors have shown promise in environmental applications. EABs are formed by electroactive bacteria capable of exchanging electrons with electrodes, which can sense analytes of interest by converting metabolic changes to easily detectable electrical signals. In 2023, the CUG-China team aims to develop an EABs-enabled biosensors to sense arsenic by using the electroactive bacterium Shewanella oneidensis MR-1 as chassis cells. The arsenic biosensor constructed in this project are self-sustainable, cost effective and portable devices with a wide range of applications including in-situ water quality monitoring. [Wiki](https://2022.igem.wiki/cug-china)https://static.igem.org/peertube/streaming-playlists/hls/608cb06b-21e7-43f5-acd2-894fbd5488b0/8d13e753-9f41-4f5d-ac95-412a22a2af35-master.m3u8https://video.igem.org/videos/embed/cVuMYh59eXGB3UiNqCEZuC8190232023-10-19T17:35:21.046ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2A3DY6VsGr1zvZnwuwVVUqhttps://video.igem.org/lazy-static/thumbnails/58abca95-b25a-461a-9422-b5ad0e80ff1d.jpgRainsACA-China: Starfire Embedded Exploration of Viral Nucleic Acids and Proteins (2023) - Team P...**Title:** Starfire Embedded Exploration of Viral Nucleic Acids and Proteins **Description:** We design methods for viral RNA research explorations which applied to the HIV-1 isolate ARV-2/SF2 viral genome design for RNA replication for nucleic acid integrase inhibitors, RNA vaccine development, and their potential methods for targeted drug development. Our goal was to utilize the env non-coding long chain RRE RNA and Rev proteins in the viral genome of the HIV-1 isolate ARV-2/SF2 viral strain to develop means that could be used for nucleic acid integrase inhibitors and RNA vaccines as well as targeted drugs. After constructing the RRE and Rev sequences separately, we will mainly carry out systematic studies through in vitro transcription of RRE RNA and its possible interaction with Rev protein. We will accomplish high quality in vitro transcription of RRE by T7 RNA polymerase, search for sites of interest for the interaction of high quality RRE RNA obtained by T7 RNA polymerase transcription with the viral protein Rev. [Wiki](https://2022.igem.wiki/rainsaca-china)https://static.igem.org/peertube/streaming-playlists/hls/0cda1013-b071-45fb-9776-a658c80a8afc/bf4a1128-5c2e-4009-b48e-35a432b78046-master.m3u8https://video.igem.org/videos/embed/2A3DY6VsGr1zvZnwuwVVUq8900112023-10-19T18:35:56.328ZYES2023 Team PresentationsNOhttps://video.igem.org/w/9VEjFjP4iKYozJLc2yWLhrhttps://video.igem.org/lazy-static/thumbnails/072d0768-a45a-4256-84a9-f0ac7d8e60ed.jpgTHINKER-CHINA: A strain engineered that provides enough myrosinase to produce su... (2023) - Team...**Title:** A strain engineered that provides enough myrosinase to produce sulforaphane and prevents colorectal cancer **Description:** Colorectal cancer is a common malignant tumor in the gastrointestinal tract and a high incidence tumor worldwide. However, after investigation, we realised that cruciferous plants is rich in high concentrations of glucosinolate, it can be hydrolyzed by myrosinase to sulforaphane, sulforaphane has strong anticancer activity and antioxidant capacity which is good at preventing colorectal cancer. Further, we designed a system with 3 parts, broccoli, suicide and ginger and made a juicer that has a mini biological fermenter in it. Unlike juicers in the market, this juicer makes juice containing more sulforaphane. We aimed for fewer people to get colorectal cancer and to save more time and money in preventing colorectal cancer. [Wiki](https://2022.igem.wiki/thinker-china)https://static.igem.org/peertube/streaming-playlists/hls/48472558-93d6-4a83-bd4d-112995cf60b9/fb3068af-a6c0-4ed2-8aa7-aaae68ba8700-master.m3u8https://video.igem.org/videos/embed/9VEjFjP4iKYozJLc2yWLhr8920282023-10-19T19:09:30.224ZYES2023 Team PresentationsNOhttps://video.igem.org/w/nU2xM1FAkJWjaGjrhSk6gZhttps://video.igem.org/lazy-static/thumbnails/c479950c-15e6-4eda-83d8-fdd3321b8750.jpgTsinghua-A: Multi-Species Automatic Antibody Drug Design System (2023) - Team Presentation [English]**Title:** Multi-Species Automatic Antibody Drug Design System **Description:** Antibody drugs, with their better specificity and lower side effects, account for a large proportion of newly approved human drugs. However, the development of drugs for various types of animals is a very slow process. Inspired by the humanization of mouse-derived antibodies, we hope to design antibodies suitable for more species. Leveraging deep learning technology and based on self-collected antibody data, we develop a comprehensive automated monoclonal antibody drug design system. Our system starts with the other sources of antibody sequences against target species antigen (such as mouse-derived antibodies), automatically generates antibody sequences that may have better efficacy and lower immunogenicity, and performs comprehensive scoring. It then provides users with improved antibody sequences based on their specific requirements. This system can accelerate the development of monoclonal antibody-based animal drugs. Our work helps animals avoid suffering from diseases, and contributes to creating a better living environment for both humans and animals. [Wiki](https://2022.igem.wiki/tsinghua-a)https://static.igem.org/peertube/streaming-playlists/hls/b1538ab3-b090-41cf-8282-148ec77ca0ab/6ff10ce5-6f36-4e0f-b41e-2669ccf0c0bb-master.m3u8https://video.igem.org/videos/embed/nU2xM1FAkJWjaGjrhSk6gZ8520622023-10-19T19:16:21.309ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8aMNQ5Wmj8kHqbDB32j8bzhttps://video.igem.org/lazy-static/thumbnails/03c97562-475e-4a03-90a8-53e18eacf2d5.jpgPekingHSC: Neuraminidase-boost Influenza Virus to Target Tumors with TFR1 high e... (2023) - Team...**Title:** Neuraminidase-boost Influenza Virus to Target Tumors with TFR1 high expression **Description:** Cancer is a great threat to human health, and the development of new antitumor therapies is imminent. Studies have shown that TfR1 (transferrin receptor 1) is highly expressed in many types of tumor cells, and it is also found that influenza virus uses the internalization pathway of TfR1 to achieve virus endocytosis, and this process is produced by the interaction between NA protein (neuraminidase) on the surface of the virus and TfR1. For the wild-type influenza virus, the number and length of the surface NA protein is less than the HA protein (hemagglutinin), which makes the identification of NA protein more difficult. Our work is to increase and lengthen the NA protein on the surface of the virus through genetic engineering, so that the NA protein is more easily recognized by tumor cells with high expression of TfR1, so as to improve the tumor targeting of influenza virus. [Wiki](https://2022.igem.wiki/pekinghsc)https://static.igem.org/peertube/streaming-playlists/hls/3a0de4f4-e27a-483c-8f93-f0b5781e92c1/8196b16c-d5e7-4794-8fe2-81602bcdec6e-master.m3u8https://video.igem.org/videos/embed/8aMNQ5Wmj8kHqbDB32j8bz8970282023-10-19T19:25:38.238ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1A2XpmAv6DC1RYxFVa744nhttps://video.igem.org/lazy-static/thumbnails/c01eb207-51da-4fc2-a60d-03e147f7aa7e.jpgNEFU-China: Opticaf (2023) - Team Presentation [English]**Title:** Opticaf **Description:** Myopia has become a prominent factor leading to permanent blindness worldwide. Traditional methods have drawbacks like low efficacy, side effects. A novel and convenient method for treating myopia is urgently needed in modern society. 7-mythylxanthine(7-MX) is a promising compound to alleviate myopia by delaying the elongation of the eye axis. However, further development and utilization of 7-MX are inhibited by its lofty price. Our project made it possible to produce 7-MX with coffee residues as the materials. Furthermore, we further increased the yield of 7-MX by modifying both the genetic circuit and proteins. [Wiki](https://2022.igem.wiki/nefu-china)https://static.igem.org/peertube/streaming-playlists/hls/04c07e3d-850a-4fc2-811f-1c771d48900f/ffb62e75-c57b-46f7-b6c4-67d5494266e2-master.m3u8https://video.igem.org/videos/embed/1A2XpmAv6DC1RYxFVa744n8880842023-10-19T19:40:32.293ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mzx1Tk86FFJJJEDytUab55https://video.igem.org/lazy-static/thumbnails/097494bf-4822-4b8e-a34a-f085360fcf8c.jpgFSHS-GD: Novel antimicrobial peptides based on combinatorial biosynthetic strate... (2023) - Team...**Title:** Novel antimicrobial peptides based on combinatorial biosynthetic strategies **Description:** The emergence of pathogen drug resistance poses a grave threat to public health, with the WHO predicting up to 10 million annual deaths from resistant infections by 2050. Conventional natural product screening approachs suffer from high rediscovery and low novelty rates. To address this issue, we focused on antimicrobial peptides which are microbial metabolites with high specificity and low side effects. In this project, we genetically combined nisin with darobactin to generate a fusion peptide with broad-spectrum activity, expressed this engineered peptide with E. coli, and finally verified the structure and activity of them. It will facilitate cost-effective, large-scale production of potent antimicrobial agents. In the future, we will formulate injectable preparations and topical ointments incorporating these peptides to treat bacterial infections in animals and humans. This project represents a promising strategy to combat the pressing challenge of antimicrobial resistance. [Wiki](https://2022.igem.wiki/fshs-gd)https://static.igem.org/peertube/streaming-playlists/hls/a6a56e72-fb33-451b-aa93-2ac149847d5c/2b4b739d-87d2-4d52-9f4b-769ec6d70d78-master.m3u8https://video.igem.org/videos/embed/mzx1Tk86FFJJJEDytUab558990212023-10-19T19:58:47.175ZYES2023 Team PresentationsNOhttps://video.igem.org/w/oqxfybcVTWXQvhwCdrD3nYhttps://video.igem.org/lazy-static/thumbnails/776a155c-b66e-4f65-bc97-e4ca39df7e87.jpgStony-Brook: Nitroscillator: Engineering Sustainable Nitrogen-Fixing Bacteria wi... (2023) - Team...**Title:** Nitroscillator: Engineering Sustainable Nitrogen-Fixing Bacteria with Genetic Oscillators **Description:** Nitrogen fertilizers are used to fulfill the food requirements of a growing, global population. However, due to the environmental repercussions of fertilizer synthesis and usage, an alternative is needed. We propose a sustainable biofertilizer design that replicates diazotrophs' nitrogen-fixing ability while reducing environmental impact. Our approach involves introducing nitrogenase genes into an oscillatory genetic network in Escherichia coli and Pseudomonas protegens. This system can be altered to regulate the expression of varied target genes, making it a useful tool in synthetic biology. In conjunction with wet lab experiments, we used our MATLAB model to predict levels of expression of the nitrogenase enzyme in the dual-feedback circuit. We successfully assembled nifBHD, nifKEN, nifXV, and hesA into separate plasmids, demonstrating proof of the assembled operon in our system. We also were able to obtain oscillatory GFP expression via confocal microscopy. [Wiki](https://2022.igem.wiki/stony-brook)https://static.igem.org/peertube/streaming-playlists/hls/b59628fa-e50a-47f9-9037-b6f89218471a/c8a6626c-172a-45b0-8d6b-bbf1a93f4b99-master.m3u8https://video.igem.org/videos/embed/oqxfybcVTWXQvhwCdrD3nY8390332023-10-19T20:16:03.212ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hSfhPfpbXfyXcMVVpctwFXhttps://video.igem.org/lazy-static/thumbnails/b567fcfc-cce6-41c1-a259-2b0350074cef.jpgHSASNU: Development of a Detector Used For Early Screening of Atherosclerosis (2023) - Team Prese...**Title:** Development of a Detector Used For Early Screening of Atherosclerosis **Description:** The cardiovascular and cerebrovascular diseases (CCVD) caused by atherosclerosis (AS) rank first among various causes of death in the world, especially in an aging society, such as China. In our project, we endeavored to develop a detector used for the early screening of AS by detecting trimethylamine N-oxide (TMAO) and microRNAs (miR-17-5p and miR-146a-5p), all of which were reported high concentration in the urine of patients. This detector uses a filter paper biosensor to detect TMAO and miRNAs based on TMAO receptor system and toehold switch, respectively, in cell free expression system. Due to the portability, it facilitates the early screening of AS at home, providing an early warning followed by early intervention to avoid of CCVD caused by AS, which is the most risk factor for the elderly people health. [Wiki](https://2022.igem.wiki/hsasnu)https://static.igem.org/peertube/streaming-playlists/hls/889636a9-c744-47db-a739-40f320c1754d/c74a34b6-6195-4c4f-828a-ee76cb0dfbc2-master.m3u8https://video.igem.org/videos/embed/hSfhPfpbXfyXcMVVpctwFX8690152023-10-19T22:55:50.333ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5rFNyqYxzoKGFZUtA1M9B4https://video.igem.org/lazy-static/thumbnails/5da93c43-a2b7-4fd2-ae92-d218c6a472b1.jpgSquirrel-Beijing-I: The use of synthetic biology to enhance microbial adsorption... (2023) - Team...**Title:** The use of synthetic biology to enhance microbial adsorption for decolorizating printing and dyeing wastewater **Description:** Nowadays, with the rapid development of science and technology, the output of waste paper industry and printing and dyeing industry continues to increase, posing an extremely serious threat to the global environment. Factories mostly use a combination of physicochemical and biochemical treatment processes, but in order to ensure that the wastewater meets the standard, printing and dyeing wastewater has weak biodegradability, many of which are difficult to remove organic pollutants, and the technology is relatively limited, and the cost is high. Therefore, we are committed to developing an environmental protection technology, through the engineering transformation of Escherichia coli, so that it can decompose the cellulose in waste paper, the material generated after waste paper treatment can be used to produce bacterial cellulose, so that bacterial cellulose can be put into the treatment of printing and dyeing wastewater. [Wiki](https://2022.igem.wiki/squirrel-beijing-i)https://static.igem.org/peertube/streaming-playlists/hls/23faad9e-acec-4ec1-aa1e-f1d14bbcbb19/3741a3c6-804c-4659-9e46-de5c6265f543-master.m3u8https://video.igem.org/videos/embed/5rFNyqYxzoKGFZUtA1M9B48980302023-10-19T21:10:50.117ZYES2023 Team PresentationsNOhttps://video.igem.org/w/oJhRcWGfkjqtDg32HC4MjFhttps://video.igem.org/lazy-static/thumbnails/aa51ddee-6f66-456a-bed4-7b553ead790d.jpgDKU: Citrus Guard (2023) - Team Presentation [English]**Title:** Citrus Guard **Description:** As a formidable infection, citrus green is threatening the very essence of citrus crops worldwide. It is primarily caused by the bacterium called Candidatus Liberibacter asiaticus, which spreads through the vectors of Asian citrus psyllids, feeding on citrus plants. This infection gradually weakens the trees, ultimately, leading to the loss of citrus fruit yield. Current methods for citrus greening prevention and treatment are still time-consuming and costly, which is hopefully to be improved by a bio-engineered phage proposed by our team. The engineered phage specifically senses the LdtR biomarker of CLas bacteria, and activates the expression of antimicrobial peptide or dsRNA. The AMP was optimized sequentially and structurally by our self-developed peptide optimization tool ProteinOpti. dsRNA sequence was also optimized by whole genome and transcriptome sequencing. [Wiki](https://2022.igem.wiki/dku)https://static.igem.org/peertube/streaming-playlists/hls/b810ac0a-e993-48c3-aa19-df5f8bab4727/ff494145-e100-4eb0-96e8-e62f2c8ad5dc-master.m3u8https://video.igem.org/videos/embed/oJhRcWGfkjqtDg32HC4MjF6720142023-10-19T23:16:54.029ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pwrrVTz6gD6c9m3uV6NmWjhttps://video.igem.org/lazy-static/thumbnails/8a4a0a82-6478-4b16-9bd7-855fc011d08e.jpgLethbridge: Engineering a Direct Detection Assay for Clubroot Pathogen in Canola... (2023) - Team...**Title:** Engineering a Direct Detection Assay for Clubroot Pathogen in Canola Soil and Roots **Description:** Clubroot, caused by the pathogenic soil-borne protist Plasmodiophora brassicae, poses a significant threat to Brassicae crops worldwide. Characterized by the development of abnormal growths or galls on plant roots, clubroot poses a serious risk to our local economy by depriving nutrients and inducing plant death in canola, our most profitable crop in Alberta. Currently, farmers outsource detection to off-site laboratories which utilize PCR amplification, a process that is costly and time-consuming. Instead, we are developing a rapid and direct ELISA testing system that utilizes rationally designed, model-based chimeric proteins fused with fluorescent probes (eGFP) that bind to P. brassicae-specific protein targets, Pro1 and PbEL04. We ultimately aim to develop a user-friendly rapid detection system, which can accurately confirm Clubroot within hours, indicating the presence of P. brassicae. Implementing our detection system would provide farmers with a rapid and affordable detection method, enabling quicker execution of clubroot mitigation strategies. [Wiki](https://2022.igem.wiki/lethbridge)https://static.igem.org/peertube/streaming-playlists/hls/be822f40-e3ae-442f-8647-b94c3ee5adbe/bf085308-6712-4ba1-b07b-a435068de644-master.m3u8https://video.igem.org/videos/embed/pwrrVTz6gD6c9m3uV6NmWj8870292023-10-20T03:12:24.694ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uXnbQvasef8czLw7vJcnJKhttps://video.igem.org/lazy-static/thumbnails/68fc1a7b-4f28-4374-b4fd-faa21d2a89ac.jpgZhejiang-United: Crisprologists: Optimized High-Efficiency Genome Editing Tool b... (2023) - Team...**Title:** Crisprologists: Optimized High-Efficiency Genome Editing Tool based on CRISPR-Cas9 System **Description:** When using CRISPR-Cas for gene editing, it is common to encounter cells that do not undergo the expected edits, thereby reducing the efficiency of CRISPR-Cas gene editing. To address this issue, we have employed a strategy of increasing the copy number of Cas9 to construct an efficient genome editing tool based on the CRISPR-Cas9 system for Nissle 1917. This approach can serve as a reference for the development of other genome editing tools. [Wiki](https://2022.igem.wiki/zhejiang-united)https://static.igem.org/peertube/streaming-playlists/hls/ea7ad8bf-f16f-464c-b7d7-dd0213bfbf9b/34e9118b-d8e0-4fda-b31d-667ef3c75126-master.m3u8https://video.igem.org/videos/embed/uXnbQvasef8czLw7vJcnJK8980162023-10-20T08:01:40.915ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uw8VEeXS8GaNBM62atsC59https://video.igem.org/lazy-static/thumbnails/eee1ba04-7f74-4c46-b89c-23fda8a2aa1d.jpgBNUZH-China: FeFighterS Engineered Bacteria Induce Ferroptosis in Tumor Cells (2023) - Team Prese...**Title:** FeFighterS Engineered Bacteria Induce Ferroptosis in Tumor Cells **Description:** In this project, we have developed a novel strategy that utilizes attenuated Salmonella typhimurium VNP20009 to induce ferroptosis in tumor cells. To further enhance the tumor targeting ability, we had genetically modified VNP20009 to express single chain antibody fragments on the outer membrane. Once the engineered bacteria reached the tumor tissue, it will secrete glucose oxidase into the tumor cells, mediating the occurrence of the Fenton reaction. Additionally, the engineered bacteria express shRNAs to silence the SLC7A11, leading to a reduction in glutathione levels and inactivation of GPX4. All above strategies facilitate lipid peroxidation and promote ferroptosis in the tumor cells. To ensure safety, we have implemented a toxin-antitoxin system to maintain plasmid stability and prevent horizontal gene transfer. Furthermore, doxycycline administration induces self-destruction of the engineered bacteria at the end of the treatment. With its targeting system and enhanced effectiveness, our approach represents a novel perspective in cancer therapy. [Wiki](https://2022.igem.wiki/bnuzh-china)https://static.igem.org/peertube/streaming-playlists/hls/e6f51462-dd04-40aa-a496-25f5c8139b20/7b538d15-b0ea-42d7-93e9-1f2573f097ff-master.m3u8https://video.igem.org/videos/embed/uw8VEeXS8GaNBM62atsC597670862023-10-20T08:59:11.621ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2aTecDfrWHF5YJLEFuHXFzhttps://video.igem.org/lazy-static/thumbnails/1a052bfb-8ebf-42e1-bb84-abae76e267a6.jpgSWUer-China: Functional exploration of new genes in traction silk properties in ... (2023) - Team...**Title:** Functional exploration of new genes in traction silk properties in garden spiders **Description:** The strength and toughness of spider silk make it a promising material. We have chosen the Nephila clavata for evolutionary analysis, and finally screened two new genes closely related to spider webbing behavior. And introduce the expression protein of the new genes into other biological silk materials to improve their mechanical properties, and explore the possibility of optimizing in vitro spinning conditions to achieve industrial preparation. [Wiki](https://2022.igem.wiki/swuer-china)https://static.igem.org/peertube/streaming-playlists/hls/097a6718-9edf-48ef-aaef-bd8571fa52bb/5950bf87-39f2-48ea-b214-72e4323ab79a-master.m3u8https://video.igem.org/videos/embed/2aTecDfrWHF5YJLEFuHXFz6710222023-10-20T11:35:29.084ZYES2023 Team PresentationsNOhttps://video.igem.org/w/w2BMpm8HEH1g2xkUFddxB8https://video.igem.org/lazy-static/thumbnails/dec1fa96-ba40-4cfe-a983-ff6871cbc06d.jpgMichigan: SNP-IT: A Single Nucleotide Polymorphism Detection Platform to Inform ... (2023) - Team...**Title:** SNP-IT: A Single Nucleotide Polymorphism Detection Platform to Inform Antiplatelet Pharmacotherapy **Description:** Antiplatelet medications are a common treatment for patients after experiencing thrombotic events, such as venous thromboembolism or some forms of stroke. Recently, a genetic variant the rs773902 single nucleotide polymorphism (SNP) was identified that may reduce efficacy of a standard-of-care antiplatelet regimen, aspirin and clopidogrel. This SNP is present in a diverse range of individuals, but is especially prevalent in those of African descent. With alternative medications available that maintain their efficacy in the presence of this SNP, our team sought to develop a point-of-care diagnostic test to detect the rs773902. We propose that physicians use this test to evaluate SNP presence in their patient and make more informed, personalized antiplatelet prescription decisions. Our team employed loop-mediated isothermal amplification and machine learning-generated fluorescent probes to design and make progress towards demonstrating efficacy of our SNP detection platform. [Wiki](https://2022.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/f32bf49b-fc3f-4728-b1fc-7b6c7bbab2d1/9069ce68-c77c-4159-a8fe-172e3060b4ca-master.m3u8https://video.igem.org/videos/embed/w2BMpm8HEH1g2xkUFddxB87980362023-10-20T11:43:05.934ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1EAjjvCMAWyBUa5QKCu4Q5https://video.igem.org/lazy-static/thumbnails/1908fd50-0271-4312-8b9e-932ca4867ed9.jpgNanjing-BioX: 'Carbon Fast': Synthetic non-oxidative glycolytic pathway for comp... (2023) - Team...**Title:** 'Carbon Fast': Synthetic non-oxidative glycolytic pathway for complete carbon conversion **Description:** Global warming, rising sea levels, and continued environmental degradation are all linked to carbon emissions. In China, microbial carbon emissions account for 7% of the total, and most of the carbon emissions generated by microorganisms come from sugar degradation. Carbon sequestration is conducive to reducing carbon emissions. This project attempts to introduce a highly active phosphoketolase (F/Xpk) gene into the heterotrophic C. tyrobutyricum, to construct an artificial NOG pathway with high metabolic flux. Compared with the native EMP pathway, this alternative pathway metabolizes glucose into acetyl CoA without carbon loss. We further tried to improve the F/Xpk expression by promoter engineering and ASR. Besides, we found that this engineered strain has a higher ability to utilize cheaper carbon sources. The approach used in this project can be further adapted to a variety of strains with similar metabolic carbon emission issues, thereby contributing to the reduction of global carbon emissions. [Wiki](https://2022.igem.wiki/nanjing-biox)https://static.igem.org/peertube/streaming-playlists/hls/05636941-48ae-4a25-bb59-f8852d7579d0/a62e2896-b8f9-4253-823c-bd056f49c99c-master.m3u8https://video.igem.org/videos/embed/1EAjjvCMAWyBUa5QKCu4Q58130242023-10-20T18:12:20.334ZYES2023 Team PresentationsNOhttps://video.igem.org/w/dDMMLMnq1Ty1WZMJAAJaRWhttps://video.igem.org/lazy-static/thumbnails/bbb96799-bb47-4047-bf15-6f71f5e536e5.jpgPLKNPLC-HK: Biodegration and degradation of methylene blue dye by S. elongatus (2023) - Team Pres...**Title:** Biodegration and degradation of methylene blue dye by S. elongatus **Description:** Dye-containing wastewater discharged from textile industries poses serious threats to aquatic biodiversity and human health. However, traditional physio-chemical methods for treating textile wastewater require high costs and produce secondary waste. Our project aims to investigate the bioremediation of textile dyes by expressing five selected ligninolytic enzymes from three different fungal species in the cyanobacterium S. elongatus, using methylene blue (MB) as a model substrate. Our in silico analyses have demonstrated MB degradation potential for all proteins of interest, suggested by their ability to form stable complexes with MB. [Wiki](https://2022.igem.wiki/plknplc-hk)https://static.igem.org/peertube/streaming-playlists/hls/667466e8-e402-457b-8715-ddba5e922b84/2c926f00-bcb9-464d-a9af-7358e404cd4f-master.m3u8https://video.igem.org/videos/embed/dDMMLMnq1Ty1WZMJAAJaRW474082023-10-21T01:20:20.086ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vbA1xfpKiJYyZZzdXxD68jhttps://video.igem.org/lazy-static/thumbnails/9b48dfa6-bb3f-4d97-84a0-7be96891b22b.jpgBZK-SH: Construction of an in vitro screening model for dengue virus inhibitor d... (2023) - Team...**Title:** Construction of an in vitro screening model for dengue virus inhibitor drugs **Description:** Our team is dedicated to developing a test kit for evaluating the effectiveness of medicines in combating dengue, a pressing public health issue with millions of viral infections annually and no current effective treatment. The NS3 protein, a versatile 69 kDa protein in the Dengue virus, possesses protease, helicase, and 5-triphosphatase (NTPase) activities. Helicase is crucial for viral replication and represents a promising target for specific antiviral inhibitors. However, the lack of effective in vitro high-throughput screening methods and medications for identifying potential RNA helicase inhibitors necessitates a rapid screening solution. Our project involves analyzing the helicase sequence and employing molecular cloning and protein purification techniques to create a high-throughput in vitro screening method. This method aims to expedite the discovery of helicase inhibitors and contribute to high-throughput drug screening for NS3 helicase, kit development, and medicine discovery in the future. [Wiki](https://2022.igem.wiki/bzk-sh)https://static.igem.org/peertube/streaming-playlists/hls/ec536af5-83d9-4870-a956-bdef15a06df4/4698c864-6540-4979-920d-e28eb1ea4816-master.m3u8https://video.igem.org/videos/embed/vbA1xfpKiJYyZZzdXxD68j8850162023-10-21T01:12:19.785ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ffh22q1WxQ9pfTDX1uFG7qhttps://video.igem.org/lazy-static/thumbnails/3ac408ea-fd4b-4254-b998-532b2dd40ecb.jpgShanghai-MedX: Drug screening system for targeting hippo signalling pathway rela... (2023) - Team...**Title:** Drug screening system for targeting hippo signalling pathway related tumours **Description:** According to the World Health Organisation, cancer is one of the leading causes of death globally. In 2020, nearly one in six deaths was caused by cancer, which means that there is a need to develop drugs to treat cancer. Our team researched papers about developing cancer drugs. After reading the article, we decided to target the Hippo signalling pathway and load the alphascreen system to form a drug screening system for targeting Hippo signalling pathway-related tumours. using this drug screening system we obtained reliable drugs against the Using this drug screening system, we obtained reliable cancer drug candidates targeting the Hippo pathway, and have experimentally tested that the candidate small molecules have significant effects on gastric cancer cells and colorectal cancer Drosophila model. This demonstrates the reliability of the drug screening system and provides more possibilities for drug candidates to enter the clinical stage. [Wiki](https://2022.igem.wiki/shanghai-medx)https://static.igem.org/peertube/streaming-playlists/hls/735e39aa-4970-4978-94ce-9900961e902c/1398a958-53ef-42ca-a5ce-28515a82eba3-master.m3u8https://video.igem.org/videos/embed/ffh22q1WxQ9pfTDX1uFG7q7800202023-10-21T01:26:05.432ZYES2023 Team PresentationsNOhttps://video.igem.org/w/efz9mmYcYgQLHESn8dTptnhttps://video.igem.org/lazy-static/thumbnails/e094aed1-65be-4f7e-a700-3bdcd278e07e.jpgSCU-China: SRBioQuencher (2023) - Team Presentation [English]**Title:** SRBioQuencher **Description:** Hydrogen sulfide(H2S) is a harmful gas in urban sewers, due to its toxicity, pungent odor, and flammability. Sulfate reducing bacteria (SRB), the main source of H2S in sewer, tend to resist the current chemical treatment once the biofilm formed. Here, we designed a predator, SRBioQuencher to kill SRB, thereby reducing the high H2S concentrations in sewers efficiently and safely. Cocktail therapy was applied by equipping SRBioQuencher with the ability to eliminate SRB biofilms by introduced glycosidases to degrade their main skeletons, inhibit the reformation of SRB biofilm by degrading the quorum sensing signal molecules, and kill SRB by the expressed antimicrobial peptides. Besides, H2S produced by SRBioQuencher was oxidized, the number of SRBioQuenchers was regulated efficiently and safely by a suicide system induced by SRB quorum sensing molecules. Our project provides a comprehensive and safe biological control strategy for prevention and control of harmful bacteria prone to the biofilm formation. [Wiki](https://2022.igem.wiki/scu-china)https://static.igem.org/peertube/streaming-playlists/hls/6b4fa41c-e05b-421e-a665-f8e19caadec7/dfa6f1d1-7b09-4fba-b256-8345930f0586-master.m3u8https://video.igem.org/videos/embed/efz9mmYcYgQLHESn8dTptn8700322023-10-21T00:27:44.110ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qUegABtBQ9ksLP2ow4WFushttps://video.igem.org/lazy-static/thumbnails/bee09680-4d75-4f5f-bb1a-40f00c727e51.jpgAachen: RareCycle - Fungi-Powered Recycling of Rare-Earth Elements from E-Waste ... (2023) - Team...**Title:** RareCycle - Fungi-Powered Recycling of Rare-Earth Elements from E-Waste for Everyone **Description:** Our world is becoming increasingly technologized, yet less than 18% of our electronic waste is properly recycled. This leads to the loss of valuable resources like Rare-Earth Elements that are crucial for sustainable technology. With RareCycle, we harness the power of synthetic biology to reduce wastage, replace harmful mining practices and remediate dumping sites! We model, produce, and study specialized metal-binding peptides capable of selectively capturing Rare-Earth ions from bioleached e-waste. We develop fungal mycelium as a sustainable and adaptable biofilter material by expressing these peptides on the fungal surface. We design, build and test a combined bioreactor and metal extraction apparatus, optimized to cultivate and deploy the fungi. Our mission is to provide cost-effective and easily reproducible technology, enabling every community worldwide to recycle their own e-waste. Collaborating with industry and NGOs, we aim to advance the Sustainable Development Goals - generating meaningful employment and promoting responsible consumer practices. [Wiki](https://2022.igem.wiki/aachen)https://static.igem.org/peertube/streaming-playlists/hls/c9a62e5e-e9fb-4732-9d33-cf2c3a7bf64e/022edeec-246a-407c-9a00-4db74d6d87c5-master.m3u8https://video.igem.org/videos/embed/qUegABtBQ9ksLP2ow4WFus9000482023-10-21T00:35:34.195ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rsf7HsbfYTWChdrny6d7Nohttps://video.igem.org/lazy-static/thumbnails/27de1238-873e-49a5-8ba3-213bf29a0950.jpgOTIA-Hangzhou: EGF enhanced Spider Silk Biomaterials for Rapid Wound Healing (2023) - Team Presen...**Title:** EGF enhanced Spider Silk Biomaterials for Rapid Wound Healing **Description:** Scalds, burns and other accidents often result in skin damage, which brings patients unbearable and long-lasting physical and mental pain, as well as economic pressure. Spider silk is being considered as a potential biomaterial for various biomedical applications. However, farming spiders and extracting silk from them on industrial scale is nearly impossible. Synthetic biology techniques can help produce spider silks recombinantly in different hosts, allowing for the creation of various functional materials depending on the desired application. In this project, we constructed a prokaryotic expression system to express recombinant spider silk protein (R) and epidermal growth factor (EGF) fusion protein for the purpose of rapid wound healing. The promising results obtained from this strategy support the manufacturing of EGF-spider silk-based biomaterials to promote the repair of skin cell damage. This gel-like material holds potential for use in wound dressing or as artificial skin. [Wiki](https://2022.igem.wiki/otia-hangzhou)https://static.igem.org/peertube/streaming-playlists/hls/ce1e80f0-aa67-4ecf-ad68-a741d0884e4a/3c348ad1-aca8-4030-a706-6227dbb42cac-master.m3u8https://video.igem.org/videos/embed/rsf7HsbfYTWChdrny6d7No8770242023-10-21T00:40:55.435ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bCGAKvLQbRqXy4k6CFBztUhttps://video.igem.org/lazy-static/thumbnails/618d6bb6-8dd9-4008-bcc6-03a93bf9908a.jpgBioplus-China: Eating plastic spider silk - Improving plastic degradation with P... (2023) - Team...**Title:** Eating plastic spider silk - Improving plastic degradation with PETase-Spider Silk fusion protein **Description:** Plastic waste poses a serious challenge to the ecological environment. Enzymatic degradation offers one potentially green way to achieve the recycling and utilization of plastic waste. Poly (ethylene terephthalate) (PET) is one of the most abundantly produced synthetic polymers, making up 12% of global solid waste. Enhancing the capture and gathering of plastics is crucial for increasing the hydrolysis efficiency of PET hydrolase degradation. Due to the characteristics of spider silk protein, this protein complex is expected to have toughness and stickiness, which facilitates the binding of plastic. In this study, we successfully constructed the prokaryotic expression system of PETase (PET-digesting enzyme) and R (a repetitive region of pyriform silk gene PySp1) fusion protein. Our results show that PETase-R recombinant proteins significantly improve the degradation efficiency of PET plastic. [Wiki](https://2022.igem.wiki/bioplus-china)https://static.igem.org/peertube/streaming-playlists/hls/561b2eb3-bc7c-4bf1-89a5-5322c325a91e/2ce218e0-e3d3-4ec9-b191-38b7b315bcf5-master.m3u8https://video.igem.org/videos/embed/bCGAKvLQbRqXy4k6CFBztU7410242023-10-21T00:46:09.628ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ihP4AvYLYrq1EPHxQ438Lhhttps://video.igem.org/lazy-static/thumbnails/8cb037af-2661-45c8-947b-f75142be2e37.jpgWestCentral-HS: RBS mutation-mediated regulation of (S)-estragenol synthesis in ... (2023) - Team...**Title:** RBS mutation-mediated regulation of (S)-estragenol synthesis in E. coli system **Description:** (S)-estragenol, a metabolite of soy isoflavones, has high antioxidant capacity. It is effective against cardiovascular disease, wrinkles, hair loss, obesity, and disease. However, only 30%~50% of people can produce (S)-estragenol naturally. Currently, chemical synthesis of (R)/(S)-estragenol mixtures are main procedures used. In our study, (S)-estragenol was heterologously expressed by engineered E. coli, which avoids the use of the expensive inducer ITPG and ensures the purity and production of (S)-estragenol. By regulating the sequence of the ribosome binding site (RBS) of the nar promoter to obtain nar promoter libraries with different translation levels, we obtained RBS libraries for the efficient production of (S)-estragenol. This study will provide a feasible green line for the production of (S)-estragenol. [Wiki](https://2022.igem.wiki/westcentral-hs)https://static.igem.org/peertube/streaming-playlists/hls/8c0442b1-5633-4469-a232-0bf4aa9d5ac4/2aab81ab-6c2d-40ab-8911-ab35c79c2631-master.m3u8https://video.igem.org/videos/embed/ihP4AvYLYrq1EPHxQ438Lh8920162023-10-21T00:55:07.746ZYES2023 Team PresentationsNOhttps://video.igem.org/w/898KyPmfaAJyKA3X8h3XLThttps://video.igem.org/lazy-static/thumbnails/5b921c84-753c-410e-97de-2e2d31b18783.jpgUSC: Phage Ea104 to Optimize Phage Attack Against Fire Blight Bacteria Erwinia a... (2023) - Team...**Title:** Phage Ea104 to Optimize Phage Attack Against Fire Blight Bacteria Erwinia amylovora **Description:** Fire blight is highly contagious and difficult to control causing hundreds of acres to be cut down and burned. As antibiotics have been used increasingly over the past century, resistance to these life-saving medicines grows exponentially. Phage therapy offers an exciting alternative. Using phage Ea104, the phage was attempted to be optimized to attack the fire blight bacteria. Then an essential gene would be deleted to ensure the phage does not attack other microbes in the environment. Viral infection of liquid cultures was effectively induced to generate viral lysate for genomic extraction. The bacteria and phage were not compatible by way of current experimental design methods in terms of safety protocols. This investigation elucidated potential new target sites, replacements for pesticides, and ideas for biocontainment tactics against microbial attacks. Ultimately, cloning techniques, genomic extraction, and the power of homologous recombination have the potential to eliminate Erwinia amylovora as a threat. [Wiki](https://2022.igem.wiki/usc)https://static.igem.org/peertube/streaming-playlists/hls/39d2b295-036f-47f6-90ee-6afba35fd657/f6cff5df-b029-4166-803c-76b33390b5b8-master.m3u8https://video.igem.org/videos/embed/898KyPmfaAJyKA3X8h3XLT644082023-10-21T03:25:31.084ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uNvM7ondmu9ctDiyD2bda7https://video.igem.org/lazy-static/thumbnails/74760d0e-d006-4f7b-9c64-8cf1a27e30d2.jpgStanford: Antibiotic Resistance Control (ARC): Engineering T7 Phages for Sub-Hos... (2023) - Team...**Title:** Antibiotic Resistance Control (ARC): Engineering T7 Phages for Sub-Host Specificity **Description:** Antibiotics have long been the cornerstone of treating bacterial infections and, at times, are the only effective care option available. Rising antibiotic use in developing nations has rapidly reduced the effectiveness of conventional antibiotics and led to a rise in antibiotic resistant bacteria (ARB). Common approaches for combating ARB include novel antibiotics and bacteriophages. However, there is currently no method to eliminate ARB that reduces disruption to native microbiota and ecosystems, minimizes human health risks, and does not readily broaden the antibiotic resistance spectrum. Our project, Antibiotic Resistance Control (ARC), achieves sub-host specificity in bacteriophages, enabling precise targeting of ARB in a diverse range of environments. We created this functional killing response by integrating synthetic RNA switches to enhance target precision and control lytic activity. By limiting phage integration and lytic activity to antibiotic resistance gene mRNA presence, we effectively safeguard symbiotic microbiomes without expanding the range of antibiotic resistance. [Wiki](https://2022.igem.wiki/stanford)https://static.igem.org/peertube/streaming-playlists/hls/e93e7274-ea87-4cc8-81d0-802cd3791c00/330a9b1e-f388-4293-b560-a572288217e8-master.m3u8https://video.igem.org/videos/embed/uNvM7ondmu9ctDiyD2bda78440712023-10-21T03:33:03.312ZYES2023 Team PresentationsNOhttps://video.igem.org/w/v7MrmHJCMWeZV2JGr4swzrhttps://video.igem.org/lazy-static/thumbnails/ed3f84a3-aaa9-4c9b-8cc7-53e04feebef7.jpgCCU-Taiwan: CTC-FAST: How we fight against lung cancer (2023) - Team Presentation [English]**Title:** CTC-FAST: How we fight against lung cancer **Description:** Cancer claims nearly 10 million lives annually, constituting one-sixth of global deaths, with lung cancer being the leading cause, responsible for 1.8 million fatalities. This trend holds true in Taiwan. Cancer metastasis, the spread of cancer cells to other organs, is a major cause of death in lung cancer patients. Detecting these cells, known as Circulating Tumor Cells (CTCs), is crucial for early monitoring. Traditional antibody-based CTC detection methods have challenges related to storage and affordability. To address this, we've developed the user-friendly CTC-FAST device, capable of automatically labeling and detecting CTCs, while allowing reagents to be stored at room temperature. CTC-FAST makes CTC detection more accessible and affordable, improving postoperative follow-up and reducing cancer metastasis-related deaths. [Wiki](https://2022.igem.wiki/ccu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/ebcb7c44-d3ae-465b-9262-55753bb91fab/9bddbd97-ba09-4e41-a08a-b00b31c75265-master.m3u8https://video.igem.org/videos/embed/v7MrmHJCMWeZV2JGr4swzr7860552023-10-21T03:05:21.209ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fSkfokhDQLKTKwvg8hDCx9https://video.igem.org/lazy-static/thumbnails/bb0ba9b0-21fd-4a78-97e7-8a9c39c4a694.jpgVirginia: NiSkin: A Transdermal Antibiotic Delivery System for Cellulitis Treatment (2023) - Team...**Title:** NiSkin: A Transdermal Antibiotic Delivery System for Cellulitis Treatment **Description:** Annually, over 14 million cellulitis cases occur in the United States, totaling over $3.7 billion in ambulatory costs. Cellulitis is a common skin infection that occurs in the dermis. Oral and intravenous antibiotics are the standard treatment, because the upper skin layers serve as formidable barriers, rendering it difficult for topical treatments to reach the dermis. Instead, antibiotics travel through the circulatory system, leading to unfavorable interactions with the body s microbiome, causing patient discomfort and promoting antibiotic resistance. Therefore, we designed a topical treatment, NiSkin, that would traverse skin boundaries and specifically destroy the pathogens causing cellulitis. NiSkin combines the powerful lantibiotic nisin A and skin-penetrating peptide TD-1. NiSkin minimizes side effects and antibiotic resistance through selective activation at the infection site. We successfully co-expressed the nisin precursor conjugated to TD-1 alongside two enzymes that produce active nisin. We observed interactions between the precursor and the enzymes through Western blot. [Wiki](https://2022.igem.wiki/virginia)https://static.igem.org/peertube/streaming-playlists/hls/7866fde3-7c24-449f-95b5-0962ffa49e86/e9692687-ce1b-4fc1-b282-ee9fd01061f4-master.m3u8https://video.igem.org/videos/embed/fSkfokhDQLKTKwvg8hDCx98670182023-10-21T06:30:27.316ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pmLTEniiz3goWrjnah56FHhttps://video.igem.org/lazy-static/thumbnails/234e39c1-bd25-42e6-9e33-04acd725f768.jpgSubCat-HongKong: The Recombinant Yeast that Can Decrease the Biogenic Amine (2023) - Team Present...**Title:** The Recombinant Yeast that Can Decrease the Biogenic Amine **Description:** Drinking is a recreational activity for people. But traditional liquor has an indelible problem: it has lots of biogenic amine. Biogenic amines are substances that include nitrogen. Biogenic amines can make people get headaches and stomachaches and also nervous. The available technology can decrease the concentration of biogenic amines but will influence the flavor. So, our topic is how we can build a recombinant yeast that allows the engagement of biogenic amine to decline and not affect the taste. We chose pAO815 as a vector. And we use the gene Aoc and gene FAD to construct the plasmid. Aoc is ammonia oxidase, which can catalyze and split the biogenic amine. FAD can help the plasmid expression better. After we succeed, we can sell this saccharomyces cerevisiae to wineries, spread it worldwide, and make it healthier for consumers to drink. [Wiki](https://2022.igem.wiki/subcat-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/bd28babe-4b9b-4adb-8e39-581beee56c33/0d07e6d2-9038-47bd-8015-593db24c7065-master.m3u8https://video.igem.org/videos/embed/pmLTEniiz3goWrjnah56FH8800132023-10-21T06:37:28.353ZYES2023 Team PresentationsNOhttps://video.igem.org/w/kzfAhvxWKs2awrJcrnWhFwhttps://video.igem.org/lazy-static/thumbnails/ae28a217-1f1d-432c-9914-e1b719bc3bf8.jpgMcGill: Proteus - A programmable and modular oncogene targeting and pyroptosis i... (2023) - Team...**Title:** Proteus - A programmable and modular oncogene targeting and pyroptosis inducing system **Description:** Prevalence of cancer has been on the rise in the last twenty years, with cancers like pancreatic cancer still not improving in terms of treatment options. We engineered a novel, personalized therapeutic technique. A personalized treatment modality restricts negative off-target effects, ideally killing cancerous cells before surgical resection becomes the only viable treatment. We utilize the newly discovered CRISPR system, Craspase, to engineer forced pyroptotic cell death among cancerous cells. Craspase is a CRISPR RNA-guided, RNA activated protease, which mediates our personalized therapeutic approach. Our team takes advantage of the high homogeneity of KRAS mutations in pancreatic cancer to design a genetic-level therapeutic that targets the cancer at its root, rather than targeting hallmarks of cancer. We designed modular parts for our project in hopes of engineering a novel therapeutic for many different manifestations of cancer, and perhaps more generally any disease propagating through RNA. [Wiki](https://2022.igem.wiki/mcgill)https://static.igem.org/peertube/streaming-playlists/hls/9e822bc9-844f-4a1e-8366-04985f3d1d54/d6834280-8ae2-471e-99b4-195d9ba1917b-master.m3u8https://video.igem.org/videos/embed/kzfAhvxWKs2awrJcrnWhFw900032162023-10-21T06:59:58.411ZYES2023 Team PresentationsNOhttps://video.igem.org/w/e3Td4bwTM6hQx9tUALjfr6https://video.igem.org/lazy-static/thumbnails/c6560296-1e25-47a6-88c8-19ac443e0ae9.jpgHangzhou-SDG: Enhanced Biopesticide Based on Metarhizium anisopliae (2023) - Team Presentation [E...**Title:** Enhanced Biopesticide Based on Metarhizium anisopliae **Description:** Chemical pesticides are known to destroy biodiversity and harm human beings. Biopesticides are safer for people and the environment, but lack of efficiency. We improved the efficiency of a fungal biopesticide, Metarhizium anisopliae, by introducing an insect-specific neurotoxin LqhIT2. To improve safety and reduce the risk of gene leakage in the real world, we also introduced a phototoxic suicide switch Pmcl1(short)-SuperNova. We hope to save our earth and make the spring no more silent. [Wiki](https://2022.igem.wiki/hangzhou-sdg)https://static.igem.org/peertube/streaming-playlists/hls/69add91b-602e-4967-a86d-9806833a30f7/551c3c00-890a-4621-b4f0-bc53580b65e9-master.m3u8https://video.igem.org/videos/embed/e3Td4bwTM6hQx9tUALjfr68960152023-10-21T09:04:50.985ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hX1kHHHibEmFJD9MK2oC7uhttps://video.igem.org/lazy-static/thumbnails/f5bbd659-0ceb-4fa2-ae8d-65f8069973bd.jpgCAU-China: My Si-lium (2023) - Team Presentation [English]**Title:** My Si-lium **Description:** In 2023, CAU China embarked on a purely biological manufacturing journey, drawing inspiration from mycilum and diatoms, and introduced a groundbreaking biotic material to the world, which we named 'My Si-lium'. Our project comprises three phases. First, quorum sensing expressed the SulA gene, elongating bacterial monomers via filamentation. Next, Spytag was positioned on flagellar L-rings using FlgH, while SpyCatcher was displayed via Wza. Spytag was captured by SpyCatcher, cross-linking bacterial cells into a regular 3D network structure. Finally, by surface-displaying silaffin and adding TEOS, bacterial cells underwent siliconization from the outside to the inside, ensuring project safety while enhancing mechanical strength. Research and modeling have revealed that 'My Si-lium' is not only cost-effective and eco-friendly but also possesses properties such as porosity, fire resistance, and mold resistance, making it highly suitable for improving existing sound-absorbing materials. It also holds significant potential in applications like material repair and decorative protection. [Wiki](https://2022.igem.wiki/cau-china)https://static.igem.org/peertube/streaming-playlists/hls/894055df-0dcd-4fc8-b255-02405326db28/71fd9a0d-3957-4174-a256-90d873ec0c30-master.m3u8https://video.igem.org/videos/embed/hX1kHHHibEmFJD9MK2oC7u8880352023-10-21T08:22:39.413ZYES2023 Team PresentationsNOhttps://video.igem.org/w/gLFhrZt7T8KwNQ57GjEEewhttps://video.igem.org/lazy-static/thumbnails/a209a504-6e0d-4346-80be-02eb0eae2e08.jpgUPNAvarra-Spain: ResVinoLife: unlocking the power of resveratrol (2023) - Team Presentation [Engl...**Title:** ResVinoLife: unlocking the power of resveratrol **Description:** In Navarre, the wine industry holds vital importance. It is estimated to produce over 83 million liters annually, encompassing six designations of origin and spanning 13,300 hectares of dedicated vineyards. During the wine production process, 25% of the grapes end up as waste, with grape skins accounting for 50% of this waste. However, grape skins possess significant value. They contain a highly nutritious compound called resveratrol, a potent antioxidant known for its protective properties against certain cancers and its anti-aging effects. Thanks to this molecule, we have the opportunity to address a major societal concern: enhancing quality of life. This is why our team has engineered the production of resveratrol in Escherichia coli using the precursors found in the subproducts of wine production. In doing so, we not only support local production values and environmental sustainability but also promote a circular economy model. [Wiki](https://2022.igem.wiki/upnavarra-spain)https://static.igem.org/peertube/streaming-playlists/hls/7fb603e0-f3de-41c8-afa5-5ceaa9a88ff8/bdaab9e1-a7cd-42b7-89f7-86ba2a35ddec-master.m3u8https://video.igem.org/videos/embed/gLFhrZt7T8KwNQ57GjEEew8990292023-10-21T07:06:34.898ZYES2023 Team PresentationsNOhttps://video.igem.org/w/x84HRm3wFCqDXhoUD95FyShttps://video.igem.org/lazy-static/thumbnails/fbd5208f-d146-47fd-811a-18607a533c41.jpgSUSTech-Shenzhen: Peptide Drug Delivery Through Type VI Secretion System (2023) - Team Presentati...**Title:** Peptide Drug Delivery Through Type VI Secretion System **Description:** Peptide drugs have become a focus in drug design due to their high specificity, high efficacy, and low immunogenicity. Unfortunately, the nature of peptide drugs themselves causes them to be easily degraded in the internal environment and to have difficulty crossing the cell membrane to function within target cells. Our project attempts to solve this problem. Bacterial secretion systems are diverse, and their primary role is to help bacteria cope with survival pressures, thus obtaining ecological advantages. Amongst many secretion systems, we pay particular attention to the Type VI secretion system (T6SS) of bacteria. This is a secretion system unique to Gram-negative bacteria, capable of targeting prokaryotic and eukaryotic cells and directly injecting the bacteria's effector proteins into the cytoplasm of target cells. This characteristic can be artificially transformed into a secretion system that carries peptide drugs. [Wiki](https://2022.igem.wiki/sustech-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/fc07cc60-6326-42a5-890d-b9c901bb5f2e/9c65e346-b1e4-4ed9-9eb3-2562a775e16d-master.m3u8https://video.igem.org/videos/embed/x84HRm3wFCqDXhoUD95FyS6910192023-10-21T08:44:06.363ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pyXRWFckk7e7UNtj6qitv6https://video.igem.org/lazy-static/thumbnails/a6e8fe0f-1042-4aa7-a58f-037ee8f444ff.jpgXHD-WuHan-Pro-China: A microplastic treatment device for performing functions of... (2023) - Team...**Title:** A microplastic treatment device for performing functions of Escherichia coli **Description:** The sea, which is supposed to be clean and clear, is now covered by plastic garbage, and microplastics will endanger human safety with enrichment. In previous studies, we found that surface display technology can display PETase on the surface of engineering bacteria and degrade microplastics in the environment. In order to ensure that the engineering bacteria will not spread in the water, we referred to the content of the Lithuanian igem team in 2022 to express the cellulose-binding protein in the engineering bacteria, and then added the cellulose component to the microplastic treatment device to anchor the engineering bacteria in the microplastic treatment device to prevent biological pollution. In order to protect the freshwater ecosystem, the device can be installed at the entrance of the reservoir or lake to reduce microplastic pollution. [Wiki](https://2022.igem.wiki/xhd-wuhan-pro-china)https://static.igem.org/peertube/streaming-playlists/hls/bedc6a59-e117-4769-8ad1-c137f9580dab/301f38ce-12e3-4329-b5d3-e59a5f2b0473-master.m3u8https://video.igem.org/videos/embed/pyXRWFckk7e7UNtj6qitv6900072023-10-21T08:50:46.339ZYES2023 Team PresentationsNOhttps://video.igem.org/w/of5BR4HKyoN73ckAszPSLkhttps://video.igem.org/lazy-static/thumbnails/2c69a9c5-b547-41c4-b2a4-6ea279c652e3.jpgShanghai-BioX: Starch shaper: Biosynthesis of high-purity amylopectin for high-p... (2023) - Team...**Title:** Starch shaper: Biosynthesis of high-purity amylopectin for high-performance bioplastics **Description:** In order to obtain high-purity amylopectin, the starch synthesis pathway in the plant sweet potato (Ipomoea batatas) was modified using CRISPR/Cas9 system. Firstly, sgRNA oligos targeting the IbGBSSI gene was designed and annealed, and was inserted into the plasmid psgR-Cas9-At to construct the backbone vector, which was combined with the binary vector pCAMBIA1301s to obtain the expression vector. This knockout construct was transformed later into embryogenic calli of sweet potato and then IbGBSSI-deficient mutants were received after further culturing and screening. After detections of the storage root starch of the mutants, it showed that the total starch content in the storage roots of the mutants was hardly changed, but the proportion of amylose was significantly reduced to between 0.5% and 0.8% while it was 23.33% of the wild-type. It indicated that high-purity amylopectin can be produced by these engineered sweet potato lines and used for performance starch-based biodegradable plastic production. [Wiki](https://2022.igem.wiki/shanghai-biox)https://static.igem.org/peertube/streaming-playlists/hls/b4204f2b-eb9b-44e2-ae4e-863ae28a8cbb/b7d0ddc8-72ed-410d-ad56-a5039d03e210-master.m3u8https://video.igem.org/videos/embed/of5BR4HKyoN73ckAszPSLk8990142023-10-21T08:57:23.505ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vPVP44W5tnbAjVFLEUBnhNhttps://video.igem.org/lazy-static/thumbnails/46f08e4e-920f-4a6e-b913-294a0a3ceddb.jpgZJUintl-China: Cancer Sniper: A new Lung Cancer Therapy (2023) - Team Presentation [English]**Title:** Cancer Sniper: A new Lung Cancer Therapy **Description:** The Cancer Sniper is a new cancer Therapy based on engineered bacteria. We found a bacteria suitable for survival and secretion of anti-tumor factors in the lung cancer microenvironment by machine learning. Then we used 3 input AND gate which can simulate tumor microenvironment to trigger the expression of anti-tumor factor CDD-iRGD.We detected the expression of the anti-tumor factor and the anti-tumor efficiency of the bacteria. [Wiki](https://2022.igem.wiki/zjuintl-china)https://static.igem.org/peertube/streaming-playlists/hls/f18a2404-958a-4bc8-bfa3-ca2e711365ba/ff428bf3-b03b-4762-b608-ce825987c7e0-master.m3u8https://video.igem.org/videos/embed/vPVP44W5tnbAjVFLEUBnhN7470312023-10-21T10:40:29.855ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pMQ7PXjbWpBgcq8UNDc5xUhttps://video.igem.org/lazy-static/thumbnails/c51fe319-7290-441a-836d-39a15c4e99e1.jpgMakerere-Uganda: CHAMPIONING PAH SOLUTIONS (2023) - Team Presentation [English]**Title:** CHAMPIONING PAH SOLUTIONS **Description:** Polyaromatic Hydrocarbons (PAHs), particularly phenanthrene and pyrene, pose grave environmental and public health threats. Traditional detection methods like Gas Chromatography-Mass Spectrometry (GC-MS) are precise but suffer from cost, time, and accessibility constraints, especially in resource-limited areas. Our research introduces a portable, cost-effective biosensor, aligning with the UN's Sustainable Development Goal 14 (Life Below Water). This biosensor aims to protect aquatic life and ensure water resource sustainability. We aim to make it versatile in order to enable real-time data for informed decisions, empowering communities proactively. Our study aims revolutionizes PAH contamination management, promoting technology integration for a cleaner healthier environment. [Wiki](https://2022.igem.wiki/makerere-uganda)https://static.igem.org/peertube/streaming-playlists/hls/c0a84ffa-9fd4-4f0a-8dae-3ab74a362a12/3f8bc5eb-fdad-4bec-9cc0-c01a651fa775-master.m3u8https://video.igem.org/videos/embed/pMQ7PXjbWpBgcq8UNDc5xU7740232023-10-21T14:04:35.475ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8ATuxoyZ3qMxwmduNsgqpPhttps://video.igem.org/lazy-static/thumbnails/43c7e0c5-c286-4df4-af83-264750119f11.jpgNanjing-China: Rainboweaver Creating vibrant cellulose fibers, dedicated to fost... (2023) - Team...**Title:** Rainboweaver Creating vibrant cellulose fibers, dedicated to fostering sustainable growth within the fashion industry **Description:** In today's fast fashion industry, an astonishing 100 billion new garments are manufactured worldwide annually. Unfortunately, the process of dyeing clothing with lipophilic dyes like indigoidine stands out as the most detrimental environmental factor within production cycle. Rainboweaver endeavors to present a truly innovative solution. Building upon previous iGEM research, firstly, we optimized K.xylinus cultivation for bacterial cellulose and created a metabolic pathway in C. glutamicum for indigoidine production. Secondly, we proposed two approaches: 1) Establishing a co-cultivation system. To ensure color uniformity, we explored agitated cultivation of indigoidine-producing C. glutamicum with BC-producing K.xylinus or directly using BC as a scaffold for C. glutamicum cultivation. 2) Introducing enzymes associated with indigoidine metabolism into K.xylinus for direct synthesis of colored fibers. Providing a groundbreaking solution to address pollution in the fashion industry, our project represents a paradigm shift by integrating cellulose production and dye synthesis into a single system. [Wiki](https://2022.igem.wiki/nanjing-china)https://static.igem.org/peertube/streaming-playlists/hls/3d8efdee-f73d-4e4a-bdb3-dbb11fde107d/af230bb4-f836-4a6e-9449-8f2cb1d1e84b-master.m3u8https://video.igem.org/videos/embed/8ATuxoyZ3qMxwmduNsgqpP8950272023-10-21T14:45:26.294ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7JHuZME5byGWhdn9Vk1uLfhttps://video.igem.org/lazy-static/thumbnails/b240c570-503f-4ce0-a23d-184b729dfeef.jpgHK-SKHLPSS: DNA-Enzyme Duo for Degradation: Using DNA duplex for faster PFAS deg... (2023) - Team...**Title:** DNA-Enzyme Duo for Degradation: Using DNA duplex for faster PFAS degradation **Description:** Poly-fluoroalkyl substances (PFAs), also named as forever chemicals , are large complex groups of synthetic chemicals that are widely used in different consumers products because of its stability to heat, oil, water, etc. Hence, long lead time is needed for PFAs degradation. Research suggested that lignin peroxidase (LiP) and manganese peroxidase (MnP) can work together for PFAs degradation. In this project, we sought possibilities to speed up the PFAs degradation process by conjugating oligonucleotide with engineered enzymes, forming a 'cascade enzyme system' of LiP and MnP. [Wiki](https://2022.igem.wiki/hk-skhlpss)https://static.igem.org/peertube/streaming-playlists/hls/368da542-69f8-441e-8e13-cd581ed6dec6/a28810c8-3a99-4785-acbf-f8d753a367a9-master.m3u8https://video.igem.org/videos/embed/7JHuZME5byGWhdn9Vk1uLf9000202023-10-21T14:52:20.208ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vdgHa5G7dchseUgYTgVHgwhttps://video.igem.org/lazy-static/thumbnails/333de425-729d-4b46-bb56-e6dfa0693b82.jpgPuiChing-Macau: Carcinogen detectors: building DNA damage biosensors to support ... (2023) - Team...**Title:** Carcinogen detectors: building DNA damage biosensors to support cancer prevention **Description:** There are millions of new cases of cancer around the world every year. Current research has been focusing mainly on cancer therapy but not prevention. To reduce cases of cancer and prevent cancer, knowledge about carcinogens is necessary. However, current methods to identify the genotoxic agents are time-consuming testing, involving animal testing and the use of many chemicals. To address this problem, we developed two biosensing systems with DNA repairing mechanisms: (1) F rster resonance energy transfer (FRET) systems with ATRIP and RPA1 in human cells, and (2) a RecA-eGFP reporting system in E.coli. We can detect DNA damage by analyzing the binding of ATRIP-EGFP and RPA1-mCherry using FRET. Additionally, we built two RecA promoters with different RBS and tested them with various carcinogens using plate readers and cell imaging. With these systems, we can screen substances for their potential carcinogenic properties in a cost-effective manner, thereby, helping cancer prevention. [Wiki](https://2022.igem.wiki/puiching-macau)https://static.igem.org/peertube/streaming-playlists/hls/ec8fa0b5-05f4-418a-95c0-7a800fa0d4e0/0cc7e06e-23ff-4736-a35b-0fa6cb17f9a9-master.m3u8https://video.igem.org/videos/embed/vdgHa5G7dchseUgYTgVHgw8590312023-10-21T17:33:11.419ZYES2023 Team PresentationsNOhttps://video.igem.org/w/dKCkkBT6LGoowY66x8Ji9chttps://video.igem.org/lazy-static/thumbnails/b0221daf-4d86-4c40-b073-ac0fec2c27c6.jpgSubCat-Shanghai: Handy ECD: a new detection strategy for detecting pathogenic ba... (2023) - Team...**Title:** Handy ECD: a new detection strategy for detecting pathogenic bacteria in food **Description:** A handheld bacteria detector is designed in our team to target bacteria that cause food poisoning. The bacteria include Bacillus cereus and Vibrio parahaemolyticus, which all belong to food-borne pathogenic bacteria. This promotion video means for highlights the consequence of consuming food of undetermined origin and reminds people of food safety. [Wiki](https://2022.igem.wiki/subcat-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/6745098c-1fb6-4bb3-9d55-f08c384d055f/9ecffd2e-c63f-490e-87df-1c989f2d6c7a-master.m3u8https://video.igem.org/videos/embed/dKCkkBT6LGoowY66x8Ji9c8800132023-10-21T17:26:00.082ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fc2m2evyaN6tPgcL2Rt5UThttps://video.igem.org/lazy-static/thumbnails/93fb8216-a4f7-4abf-986b-7f113377ffcd.jpgCNAS-Romania: Engineered Cyanobacteria For A Greener Future (2023) - Team Presentation [English]**Title:** Engineered Cyanobacteria For A Greener Future **Description:** Cyanobacteria are one of the first life forms to appear on Earth. Microorganisms capable of producing oxygen through photosynthesis, they live both in salt and freshwater. However, when their environment is polluted, they can cause algae blooms that are harmful to the ecosystem. Alcanivorax borkumensis is a type of bacteria that has the ability to break down alkanes, essentially decomposing petroleum into non-toxic components. A part that can give cyanobacteria the ability A. borkumensis has was engineered, with the hope that algae blooms can actually fight pollution. Three species of cyanobacteria were thoroughly researched through various experiments, and information that could benefit future scientists was gathered. The project started small, focusing on the local lake, and trying to adapt to the community s needs. However, the team hopes that the proposed idea can help fight pollution on even larger scales, bringing a greener future one cyanobacteria at a time. [Wiki](https://2022.igem.wiki/cnas-romania)https://static.igem.org/peertube/streaming-playlists/hls/72e9f3a3-9ad3-478d-9705-b452b645c7f3/dc2aaa3e-b255-4ff8-849c-e6cc470d9cf4-master.m3u8https://video.igem.org/videos/embed/fc2m2evyaN6tPgcL2Rt5UT8900222023-10-22T02:40:32.307ZYES2023 Team PresentationsNOhttps://video.igem.org/w/tcKu6VSqNPaq9PdSv8gyL9https://video.igem.org/lazy-static/thumbnails/fdb236a2-5bb3-4cca-89d9-8551c449e2c8.jpgTec-Chihuahua: AureoBos: Recombinant Enzibiotics as The Future of Non-Antibiotic... (2023) - Team...**Title:** AureoBos: Recombinant Enzibiotics as The Future of Non-Antibiotic Bovine Mastitis Treatment **Description:** Bovine mastitis, an inflammatory udder infection caused by gram-positive and gram-negative bacteria, annually affects 5.4 million dairy cattle, impacting milk production, causing wastage and rising prices. Conventional antibiotic treatment exacerbates the issue by fostering bacterial resistance. We pioneer non-antibiotic bovine mastitis treatment, addressing global needs while minimizing risks. Aureobos, is an intramammary infusion of endolysins, antimicrobial enzymes known for their specificity, effectiveness against antibiotic-resistant strains, and limited development of resistance. To overcome challenges such as gram-negative bacteria s structure, short endolysin lifespan, and limited range, we synthesized three recombinant-endolysins: LysCSA13, LysK, and LysSS. They feature natural catalytic (CHAP) and cell wall binding (SH3) domains, a 30 hour-lifespan extension via an albumin binding domain, and enhanced targeting and lysis capabilities against Streptococcus agalactiae, Streptococcus uberis (SH3B30 domain), Staphylococcus aureus, and Escherichia coli (polycationic peptides PCNP and CecA). Finally, we included a TEV cleavage site for 6x HisTag removal after protein purification. [Wiki](https://2022.igem.wiki/tec-chihuahua)https://static.igem.org/peertube/streaming-playlists/hls/dc4ab93c-67b8-4dbf-bf5b-0f1fb85372e8/274a6b3d-8b85-46a3-97a5-e749f1d7ca5a-master.m3u8https://video.igem.org/videos/embed/tcKu6VSqNPaq9PdSv8gyL990001202023-10-22T01:10:52.108ZYES2023 Team PresentationsNOhttps://video.igem.org/w/9FMfmdssLongpforJpmenDhttps://video.igem.org/lazy-static/thumbnails/950cfdbd-e3da-4a1b-b044-3ac4107fa26b.jpgBS-United-China: A new method for predicting acne vulgaris and preventing the oc... (2023) - Team...**Title:** A new method for predicting acne vulgaris and preventing the occurrence of acne **Description:** Acne vulgaris is the second most prevalent inflammatory dermatoses worldwide, impacting more than 85% of adolescents physical and psychological health. So far, no method on acne prevention is reported. Here, we invented a new L-RCA based method, BS test kit, to find out the healthy people with potential acne vulgaris in 10 minutes. People who had the acne warning will undergo a certain treatment with BS cleanser. BS cleanser contained 3 key elements: a Propionibacterium acnes (P. acnes) fix protein named capsular antigen fragment 1- antimicrobial peptide infused (Caf1-AMP), and a specified P. acnes killing protein named TurboID-signal peptide. We also added Glutathione Peroxidase 7 to the BS cleanser to eliminate the reactive oxygen species and protect the skin cells from oxidative damage. In summary, we offer a solution for predicting and preventing the growth of P. acne in 'healthy' individuals before acne happens. [Wiki](https://2022.igem.wiki/bs-united-china)https://static.igem.org/peertube/streaming-playlists/hls/46570041-c907-42c6-9dfa-234831edfecb/d67cbb4c-0682-4342-a336-1bbaf81bde99-master.m3u8https://video.igem.org/videos/embed/9FMfmdssLongpforJpmenD8570302023-10-22T04:51:02.036ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cToNCDbsEkbEcGWh8oxGDihttps://video.igem.org/lazy-static/thumbnails/98a54f08-1915-422b-9f35-96f7ca3a772f.jpgXJTLU-CHINA: Claritein (2023) - Team Presentation [English]**Title:** Claritein **Description:** XJTLU-CHINA design two types of biosorbents applied in the adsorption of heavy and noble metal ions. They make a biological pathway that is composed of the small ubiquitin-like modifier (SUMO), SmtA, carbohydrate-binding module (CBM), and superfolder GFP (sfGFP) to produce the biosorbent absorbing heavy metal ions. For recycling precious metals, they combine curli fiber and AG4 into a fusion protein. Thus, silver ions are recovered by utilizing the adsorption force of AG4 on silver ions. In the end, these biosorbents are placed in the hardwares for better practical application. [Wiki](https://2022.igem.wiki/xjtlu-china)https://static.igem.org/peertube/streaming-playlists/hls/604182d0-561a-42f3-b784-1ec585fad0ab/0394a0a0-2afc-4787-9f13-547dba64bc50-master.m3u8https://video.igem.org/videos/embed/cToNCDbsEkbEcGWh8oxGDi8990352023-10-22T05:00:44.773ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vavLM6kcoSdDPXXQXPTsqGhttps://video.igem.org/lazy-static/thumbnails/c9534d9f-252a-4dcd-bf73-745649ce24bb.jpgUOregon: HGT: Hostile Gene Transfer (2023) - Team Presentation [English]**Title:** HGT: Hostile Gene Transfer **Description:** We are developing an E. coli Nissile 1917 (EcN) based therapeutic to selectively target and destroy GI tract pathogens. It is a precise, modular, alternative to small-molecule antibiotics. Our first target is Helicobacter pylori, a stomach pathogen infecting more than 50% of humans. We bind to surface proteins present on our target and conjugate a malicious DNA payload into our target cell. We've engineered our strain to survive in the stomach by upregulating the glutamate-dependent acid resistance using GadE (BBa_K1639002). We are also expressing a biofilm with functionalized curli monomers to further enhance acid fitness. Conjugation occurs using a modified RP4 'helper' plasmid that doesn't transmit itself, allowing us to safely transfer a separate plasmid coding for our payload without transmitting conjugation machinery. Our team also developed EZBinder, a one-click binder design software that creates high-quality protein-protein binders without requiring previous experience with computer science or protein design. [Wiki](https://2022.igem.wiki/uoregon)https://static.igem.org/peertube/streaming-playlists/hls/ec2d100f-33ae-48a7-a40c-87d50ab8fb08/e3321610-ce7a-416b-ad1e-23e52a250fff-master.m3u8https://video.igem.org/videos/embed/vavLM6kcoSdDPXXQXPTsqG883092023-10-22T05:06:20.719ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mpBD2qfXqvHyD96WX4x5sbhttps://video.igem.org/lazy-static/thumbnails/94906bf0-d98b-435d-9111-0a9596177b0d.jpgZJFH-Nanjing: Cell Factory Of Sugar Substitute (2023) - Team Presentation [English]**Title:** Cell Factory Of Sugar Substitute **Description:** Many people prefer to choosing sugar substitute while losing weight. However, the production of natural sugar substitutes (e.g., plant extraction method and chemical synthesis) has some limitations. Therefore, We aim to produce xylitol by transformation using Escherichia coli BL21, and realise the de novo synthesis of erythritol by Yarrowia lipolytica. [Wiki](https://2022.igem.wiki/zjfh-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/a542d7c3-6021-4931-a3ad-92547e3b99e6/4b20b1e4-9d06-45f4-acae-fe5cb2645c68-master.m3u8https://video.igem.org/videos/embed/mpBD2qfXqvHyD96WX4x5sb8530522023-10-22T05:15:08.506ZYES2023 Team PresentationsNOhttps://video.igem.org/w/u7kWX5UnQQMfBk3wS9LpbXhttps://video.igem.org/lazy-static/thumbnails/52cbf22c-518c-4abc-9833-9e8e7667cfb8.jpgHKPOLYU: An innovative approach to construct a bispecific antibody to combat the... (2023) - Team...**Title:** An innovative approach to construct a bispecific antibody to combat the Osimertinib resistance in NSCLC **Description:** Our project addresses the critical issue of Osimertinib resistance in non-small cell lung carcinoma (NSCLC). NSCLC accounts for 85% of all lung cancer cases and the average five-year survival rate is only 28%. Apart from common treatments such as surgery, chemotherapy, and checkpoint inhibitors, Osimertinib, as the first-line targeted therapy for NSCLC patients with an EGFR mutation, can develop acquired drug resistance, thus affecting its long-term efficacy. Our team has therefore established an innovative approach that involves developing a cyclic peptide on the bispecific antibody which simultaneously binds EGFR and c-MET to overcome the Osimertinib resistance, and to inhibit tumour cell proliferation. This solution not only improves therapeutic results but also significantly reduces production costs, thus improving accessibility. Through various outreach methods and consultations, we have actively engaged the wider community to inform our work, ensuring our solution is not only scientifically strong but also socially and economically viable. [Wiki](https://2022.igem.wiki/hkpolyu)https://static.igem.org/peertube/streaming-playlists/hls/e3a2a35c-511d-408d-8fb5-2ac9464bc2d7/0faa6e4a-e7b7-4410-9481-a064a4002788-master.m3u8https://video.igem.org/videos/embed/u7kWX5UnQQMfBk3wS9LpbX8580582023-10-22T04:44:06.278ZYES2023 Team PresentationsNOhttps://video.igem.org/w/t11QqKCfVtM81KfgvJ9AbChttps://video.igem.org/lazy-static/thumbnails/03c25664-ed32-4f36-9149-a321cc587fa1.jpgThinker-SC: Technology Green Finger: Genetically engineered E. coli helps innova... (2023) - Team...**Title:** Technology Green Finger: Genetically engineered E. coli helps innovative acetic acid seeds prevent soil erosion **Description:** Soil erosion is a major environmental problem. We use genetic engineering technology to innovatively launch acetic acid seeds - indole acetic acid, in order to alleviate this problem. We introduced the key enzyme responsible for the production of IAA into engineered E. coli so that it can produce IAA. In order to strengthen soil remediation, E. coli is also made to produce sticky biopolysaccharides, which is beneficial to soil improvement. In terms of safety, we designed a suicide system to ensure that the strains do not have a negative impact on the environment. The structure of the seeds is designed as concentric circles. From the inside to the outside, there are seeds, strain freeze-dried powder, hydrogel and arabinose-containing hydrogel. When the plant penetrates the outer hydrogel, it triggers the suicide system and releases IAA, aiming to achieve soil and water conservation and ecological restoration through the power of technology. [Wiki](https://2022.igem.wiki/thinker-sc)https://static.igem.org/peertube/streaming-playlists/hls/daa74224-b065-4e1d-a378-e232aec679f0/95454fb0-321a-4e8d-9d81-d4aa3efcf86e-master.m3u8https://video.igem.org/videos/embed/t11QqKCfVtM81KfgvJ9AbC7600142023-10-22T05:25:45.034ZYES2023 Team PresentationsNOhttps://video.igem.org/w/iPxq1tJ1qdJQgk8qGy5d85https://video.igem.org/lazy-static/thumbnails/6e57d3df-f5a3-4e82-b0bb-9793428ff38f.jpgNIS-Kazakhstan: Enhanced PET degradation (2023) - Team Presentation [English]**Title:** Enhanced PET degradation **Description:** PET hydrolase (PETase) and mono(2-hydroxyethyl) terephthalate hydrolase (MNETase) are known to synergistically convert PET into its monomeric building blocks. Our team developed six bacterial expression vectors with PETase and six dual expression plasmids containing PETase and MHETase enzymes for optimal PET degradation using Pseudomonas putida, targeting scalability in PET recycling plants. Due to time constraints, we focused on comparing the mutant form of BBa_J435500_W159H_S238F enzyme with wildtype PETase, using p-nitrophenyl butyrate (pNPB) as a PET analog. Under conditions of 2500 nanomolar pNPB, pH 9.0, and 30 C, the modified PETase's activity exceeded the wildtype's by seven-fold. This highlights the potential of BBa_J435500_W159H_S238F for developing PET recycling strategies. Data from iGEM 2019 in Toronto further confirms our results indicating the superior performance of our construct, highlighting the critical role of enzyme modification in combating the plastic pollution problem. [Wiki](https://2022.igem.wiki/nis-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/904eac87-04ed-422e-a2e9-dcd40fa6f36a/d4a663aa-00e5-4cc3-96f9-2af5c681a140-master.m3u8https://video.igem.org/videos/embed/iPxq1tJ1qdJQgk8qGy5d859930702023-10-22T05:35:21.221ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hzpg98dvwgDTskGkA3ikHXhttps://video.igem.org/lazy-static/thumbnails/9c317bac-658f-449a-94c9-946912c10a5f.jpgBJEA-China: Nicotine Killers (2023) - Team Presentation [English]**Title:** Nicotine Killers **Description:** Nicotine, a potent alkaloid found in plants of the nightshade family, is a crucial component of tobacco. As an addictive organic compound capable of creating dependency, repeated use of nicotine can trigger over 20 diseases, even leading to death. Quitting smoking is undoubtedly the most effective way to prolong life, but the intense addictive nature of nicotine and its withdrawal symptoms make quitting immensely challenging. Fortunately,researchers have discovered NicX in the human gut microbiota, a substance capable of degrading nicotine. Mouse experiments have shown that degrading nicotine can reduce withdrawal symptoms in these animals. This implies that using NicX to degrade nicotine could potentially serve as a viable method for smoking cessation. We aim to further enhance the nicotine degradation through 3 means:constructing a JI-NicX fusion protein, utilizing mutation techniques, and employing cell surface display system. [Wiki](https://2022.igem.wiki/bjea-china)https://static.igem.org/peertube/streaming-playlists/hls/863c191c-967a-41b7-abba-3c463c9f4ef5/62e00b1c-fe33-4dbb-a1fd-378a12ff24fc-master.m3u8https://video.igem.org/videos/embed/hzpg98dvwgDTskGkA3ikHX8990362023-10-22T05:45:06.066ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1v2qXN8QeKctFeZScgnBj2https://video.igem.org/lazy-static/thumbnails/3f05bf72-82b5-4e64-86a2-9c97739b2ecf.jpgSquirrel-CHN: Customized E. coli helps develop special meals for PKU patients (2023) - Team Prese...**Title:** Customized E. coli helps develop special meals for PKU patients **Description:** Phenylketonuria (PKU) is a rare and serious metabolic disease in which patients are unable to consume common foods such as milk, meat, eggs and breast milk from birth, otherwise it will lead to intellectual disability and even death. This has led them to be praised as 'angels who do not enjoy worldly pleasures' and need to follow strict dietary restrictions throughout their lives. Our research team used bioengineering technology to modify E. coli to enable it to absorb phenylalanine, which laid the foundation for the development of special dietary foods suitable for PKU patients. Using our engineered bacteria, we are now able to create foods that meet the specific dietary needs of PKU patients, bringing new hope and possibilities to their daily lives. Through this innovative approach, we not only provide PKU patients with more food choices, but also open a new window for them to enjoy life. [Wiki](https://2022.igem.wiki/squirrel-chn)https://static.igem.org/peertube/streaming-playlists/hls/040d7369-c193-452d-bf2d-422484cf4d19/ba9dc218-cac0-4846-aa2b-75b4d77be665-master.m3u8https://video.igem.org/videos/embed/1v2qXN8QeKctFeZScgnBj28440142023-10-22T06:05:58.997ZYES2023 Team PresentationsNOhttps://video.igem.org/w/w71ctphBftcFFQRrHptfCuhttps://video.igem.org/lazy-static/thumbnails/da457c1d-7321-40e1-83cb-8332fc53c0e1.jpgEPFL: 48C: Developing a Live Biotherapeutic Product for Cadmium Intoxication (2023) - Team Presen...**Title:** 48C: Developing a Live Biotherapeutic Product for Cadmium Intoxication **Description:** Cadmium, a highly toxic heavy metal, poses a severe threat to public health and the environment. Classified as a group-one carcinogen by the International Agency for Cancer, cadmium contamination remains a critical issue. It accumulates in soil and water, impacting food supplies. Our project proposes a Live Biotherapeutic Product (LBP) that attaches to the small intestine's mucus lining, binding cadmium and facilitating natural elimination. Initially using Escherichia coli as a proof-of-concept, we aim to progress to gut-native bacteria like Lactobacillus. Our approach involves two induced proteins: a mucus-binding protein (SpaC), only induced in culture, and a cadmium-binding protein (EC20). To ensure safety, we administer zinc and iron concurrently to prevent mineral depletion and employ a double gene knockout strategy to prevent Horizontal Gene Transfer (HGT). This LBP offers a promising solution to mitigate global cadmium contamination, safeguarding human health. [Wiki](https://2022.igem.wiki/epfl)https://static.igem.org/peertube/streaming-playlists/hls/f3c8be8b-ab32-4fb9-a4cd-b26fdc614e44/47a4b88d-676e-4b07-9610-d93a06dea0d3-master.m3u8https://video.igem.org/videos/embed/w71ctphBftcFFQRrHptfCu8930432023-10-22T06:23:39.599ZYES2023 Team PresentationsNOhttps://video.igem.org/w/tJuhZZ8b256JLKmG7pJoNFhttps://video.igem.org/lazy-static/thumbnails/e05d58bd-deb6-4aed-8921-6a3e82f29a8b.jpgAix-Marseille: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/aix-marseille)https://static.igem.org/peertube/streaming-playlists/hls/e0956b1c-5b93-48ff-9893-43850743e36b/4997943d-ca4a-412c-b13d-9d4c710b5551-master.m3u8https://video.igem.org/videos/embed/tJuhZZ8b256JLKmG7pJoNF9000152023-10-22T06:15:53.203ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mCthncyvpNxC8997Q49b9khttps://video.igem.org/lazy-static/thumbnails/1ebda589-0df8-4d77-ba2f-4734a2aeab41.jpgTSBC-SZ: Gox1 enhances iron death in the treatment of triple negative breast cancer (2023) - Team...**Title:** Gox1 enhances iron death in the treatment of triple negative breast cancer **Description:** Breast cancer is a prevalent form of cancer among women, and among its various subtypes, Triple Negative Breast Cancer stands out due to its early onset, high malignancy grade, and poor prognosis. TNBC is characterized by the absence of estrogen/progesterone receptors (ER/PR) and HER2 protein expression, making it challenging to address using conventional therapies. Our project focuses on advancing cancer treatment strategies, particularly for TNBC. Our objective is to achieve this by genetically modifying a plasmid containing Gox1, which induces the expression of glucose oxidase. This modification aims to inhibit critical pathways (GPX4/GSH and FSP1/CoQ10H2) that play a role in preventing ferroptosis. By disrupting lipid metabolism and redox balance, we anticipate that this approach could potentially impede tumor cell division. The product of our project will take the form of protein drugs by injection or in vivo targeted delivery. [Wiki](https://2022.igem.wiki/tsbc-sz)https://static.igem.org/peertube/streaming-playlists/hls/a70e5cb5-e7d3-4d02-aa99-0ece8a5c6b3b/aac3c2be-fb16-4357-a4f8-1f3d8e49c36b-master.m3u8https://video.igem.org/videos/embed/mCthncyvpNxC8997Q49b9k8990102023-10-22T09:15:03.795ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wFGkofVMj6ALEpz5WJybwKhttps://video.igem.org/lazy-static/thumbnails/a5301377-4e3d-4307-8fad-ce4d3f0675cf.jpgHeidelberg: RemixHD: a novel bioremediation method using a Pseudomonas fluoresce... (2023) - Team...**Title:** RemixHD: a novel bioremediation method using a Pseudomonas fluorescens co-culture for enzymatic mixed plastic degradation **Description:** Our ReMixHD platform emerges as a novel method for upcycling mixed plastic using a co-culture of genetically modified Pseudomonas fluorescens. We introduced polyethylene terephthalate and polyethylene degrading enzymes. Two in-vivo biosensors can control the expression of a growth factor depending on the concentration of the monomers, terephthalic acid and alkanes. The main strain uses terephthalic acid as a carbon source to synthesize a recombinant product. Furthermore, we established P. fluorescens as a new chassis organism for bioremediation and designed a cutting-edge genome-scale metabolic model that can model co-culture dynamically for industrialization. This innovative platform technology paves the way toward sustainable production, development, and environmental stewardship. [Wiki](https://2022.igem.wiki/heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/f87d060e-eba4-41ff-910b-cae503667a3f/cdd1aa8b-eac5-495f-ab18-5214a31bcf83-master.m3u8https://video.igem.org/videos/embed/wFGkofVMj6ALEpz5WJybwK88402992023-10-22T07:54:15.078ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rjkP3AQ1bHxeQWZ7u1uj4Bhttps://video.igem.org/lazy-static/thumbnails/af5b0739-77e3-4803-bec3-d67ed85812db.jpgTU-Eindhoven: cELPro for non-invasive, affordable treatment of IBD (2023) - Team Presentation [En...**Title:** cELPro for non-invasive, affordable treatment of IBD **Description:** Inflammatory bowel disease is a chronic inflammatory disease of the gastrointestinal tract that affects 4.9 million people worldwide. Current treatments aim at relieving the symptoms of the disease. However, those are not specific enough, cause many side effects or are very expensive. The TU-Eindhoven team wants to tackle this challenge by developing an affordable, safe, targeted microbe-based therapy that works locally in the bowel. With the use of elastin-like polypeptides, the TU-Eindhoven team modify E. coli bacteria so that they become unable to divide by forming a hydrogel inside the cell, making them safer for ingestion. Simultaneously, they will produce the anti-inflammatory protein IL-10 to treat symptoms and reduce inflammation locally in the intestine. The product is called cELPro and will be used as a probiotic pill that patients will take regularly. In short, the TU-Eindhoven team creates micrometre-sized drug factories that relieve many problems that IBD patients experience. [Wiki](https://2022.igem.wiki/tu-eindhoven)https://static.igem.org/peertube/streaming-playlists/hls/cd04103a-a5f9-4e85-bf1b-b9889ff6d539/8caa384d-5605-4bbb-96b0-df51fbabaf08-master.m3u8https://video.igem.org/videos/embed/rjkP3AQ1bHxeQWZ7u1uj4B7440762023-10-22T08:00:20.964ZYES2023 Team PresentationsNOhttps://video.igem.org/w/gB7d3jc7iSFbj2Nc8CcfSYhttps://video.igem.org/lazy-static/thumbnails/481cd8e3-6576-4324-a2ab-655a1648e9b8.jpgStuttgart: DentoZym - Biotech for dental health! (2023) - Team Presentation [English]**Title:** DentoZym - Biotech for dental health! **Description:** Dental caries is the most common health condition worldwide. Improper oral care can lead to biofilm formation on teeth, causing tooth decay. We focus on a new approach regarding caries prophylaxis. A mixture of enzymes, antimicrobial peptides (AMPs) and monolaurin will be used to destruct biofilms and prevent biofilm formation. The enzymes degrade exopolysaccharides, which are crucial for biofilm integrity. Bacteria within the biofilm will be released and eliminated by AMPs and monolaurin, thus preventing biofilm formation. They were specifically selected to target Streptococcus mutans, because this bacterium is the main contributor to caries-causing biofilms. The vector system for enzyme expression in P. pastoris could not be successfully cloned. The plasmids expressing the peptides were validated through Sanger-sequencing after cloning and employed for expression in E. coli, resulting in very low protein yield. The synthesis of monolaurin could not be performed since access to an HPLC could not be provided. [Wiki](https://2022.igem.wiki/stuttgart)https://static.igem.org/peertube/streaming-playlists/hls/7e5feffa-1337-45b3-8cdf-821b9e4d0d9c/da454b56-92cb-4aef-9f44-7fb78ba9fe5f-master.m3u8https://video.igem.org/videos/embed/gB7d3jc7iSFbj2Nc8CcfSY8400292023-10-22T08:05:49.329ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vdaMh4j5nY9EGxE4hqvVh4https://video.igem.org/lazy-static/thumbnails/33a78566-5ed5-47df-92d7-3e794719e4aa.jpgKULeuven: YarroWCO: the transformation of waste cooking oil into medicine (2023) - Team Presentat...**Title:** YarroWCO: the transformation of waste cooking oil into medicine **Description:** One liter of waste cooking oil (WCO) can contaminate a million liters of potable water. Humanity currently produces billions of tons of WCO yearly, with limited routes for its safe disposal, making it a threat to our environment. We propose to harness the yeast Yarrowia lipolytica to go beyond decontamination: our goal is to upcycle WCO into campesterol, an important steroid precursor for the pharmaceutical industry. Y. lipolytica can use WCO as a carbon source, but our team has focused on improving its access to WCO via expression of bioemulsifiers. We characterized the expression of a bioemulsifier in E coli and derived a cloning strategy for S. cerevisiae. We also optimised the best candidates in silico and integrated them into a molecular switch to optimise the metabolic burden of the expressed bioemulsifier. We demonstrate bioemulsifiers could increase accessibility of WCO as a carbon source for bacterial and fungal growth. [Wiki](https://2022.igem.wiki/kuleuven)https://static.igem.org/peertube/streaming-playlists/hls/ec8bf952-3029-428f-a11b-2225d8ab2edf/ec5563c6-6d8a-4843-9e15-a29a42219a9a-master.m3u8https://video.igem.org/videos/embed/vdaMh4j5nY9EGxE4hqvVh47370272023-10-22T09:51:19.088ZYES2023 Team PresentationsNOhttps://video.igem.org/w/aykwHWg3NdTGRDbCaDaKTkhttps://video.igem.org/lazy-static/thumbnails/5dfa59e7-70f9-4aa0-89a0-f8aeb1c254f5.jpgH14Z-AP: Expressing a Tardigrade Protein to Prevent Taupathy in Drosophila (2023) - Team Presenta...**Title:** Expressing a Tardigrade Protein to Prevent Taupathy in Drosophila **Description:** Tauopathy causes Alzheimer s disease (AD), a common neurodegenerative disease with no cure. New therapeutic strategies are waiting to be discovered. Protein misfolding and cell death are two key features of AD. Scientists have identified a tardigrade protein called CAHS3 that can help protein folding and prevent cell death. In this study, we tested whether CAHS3 expression could attenuate tau toxicity in a fly AD model. We constructed a plasmid that can express V5-tagged CAHS3 protein in both culture cells and transgenic flies. We overexpressed CAHS3 alone or together with hTau in the fly eyes. Analyzing the fly eyes using SEM and our original mathematical model, we concluded that CAHS3 expression does not affect fly eye development. However, it does not provide significant improvement of the eye defects caused by hTau. In the future, we hope to test the effects of CAHS3 in other neurodegenerative disease models. [Wiki](https://2022.igem.wiki/h14z-ap)https://static.igem.org/peertube/streaming-playlists/hls/4d66158d-7478-429e-915a-4acdbe27b305/8640a739-c88c-4730-8a4a-f43857c05fa6-master.m3u8https://video.igem.org/videos/embed/aykwHWg3NdTGRDbCaDaKTk7400252023-10-22T10:00:13.480ZYES2023 Team PresentationsNOhttps://video.igem.org/w/6cwanCcVXnzy2mSkBfme1Ghttps://video.igem.org/lazy-static/thumbnails/48eeadfd-f932-4ab6-9525-ec6a2b9d6604.jpgKCIS-Xiugang-Taipei: Brew to First Aid: An environmental-friendly answer to leather (2023) - Team...**Title:** Brew to First Aid: An environmental-friendly answer to leather **Description:** The leather industry is harmful to the environment: endangered animals are killed for products, cattle needed for leather produce greenhouse gases; chemicals used to process animal skin pollute the environment and create health problems for workers involved. This inspired us to tackle the leather industry with a more sustainable approach: SCOBY (symbiotic culture of bacteria and yeast). SCOBY contains lactic acid bacteria, acetic acid, bacteria, and yeast, and forms a bacterial cellulose membrane by tangling secreted cellulose fibrins. This cellulose membrane can be used as a replacement for animal leather, however, dried SCOBY is very rigid, which makes it undesirable for use in creating certain leather products. Our design creates overexpression of spider-silk proteins (MaSP-1 MaSP-2) (to enhance flexibility) in conjunction with cellulose binding domain (CBD) (to join the proteins to the SCOBY) in yeast. It is then co-cultured with regular SCOBY membrane to create a more flexible product. [Wiki](https://2022.igem.wiki/kcis-xiugang-taipei)https://static.igem.org/peertube/streaming-playlists/hls/2a197667-7ed6-403d-b72c-21702b9c4b9c/a59c76f9-d393-402e-af52-f472ee51f633-master.m3u8https://video.igem.org/videos/embed/6cwanCcVXnzy2mSkBfme1G9000312023-10-22T10:12:59.588ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7YKY35JqjaG54pC6CXmsUchttps://video.igem.org/lazy-static/thumbnails/734301ad-bb52-423f-bb1c-e2ced2589a70.jpgHKSSC: E. coli biosensor for detection and cleaving of autoinducer among Burkhol... (2023) - Team...**Title:** E. coli biosensor for detection and cleaving of autoinducer among Burkholderia pseudomallei, for reducing virulence **Description:** Melioidosis is an infectious disease caused by a gram-negative bacteria Burkholderia pseudomallei containing biofilm in contaminated area, affecting people in Hong Kong with 34 cases including 7 deaths. Since it s a multi-drug resistant, the conventional therapy for Melioidosis has proven futile and the clinical therapy for Melioidosis last for 20 days. Therefore, to combat this issue, an effective way to prevent the spread of B. pseudomallei is urgent. Our team has designed an engineered biosensor model to counter measure the issue. The biosensor will cleave the AHL molecules until the disruption of biofilm. Consequently the virulence of the bacterium will be reduced. When there is no more AHL molecules, the biosensor will carry out its apoptosis. We are targeting not only an easy way to detect pathogens, but also countering the contamination effectively. [Wiki](https://2022.igem.wiki/hkssc)https://static.igem.org/peertube/streaming-playlists/hls/38839403-3552-4b11-8f0a-a17ddf36e3cb/21594751-13da-427e-9b15-2fcb662b3912-master.m3u8https://video.igem.org/videos/embed/7YKY35JqjaG54pC6CXmsUc8990202023-10-22T10:31:06.361ZYES2023 Team PresentationsNOhttps://video.igem.org/w/3CbZSBFtQMghR2LmEQReQchttps://video.igem.org/lazy-static/thumbnails/d8dcf28a-927c-4990-8310-11fc21f22e26.jpgFAU-Erlangen: GLOW.coli - with Bacteria against IBDs (2023) - Team Presentation [English]**Title:** GLOW.coli - with Bacteria against IBDs **Description:** The importance of gut health has gained significant recognition in recent years. Research has shown that the composition of the gut microbiome, can help in the prevention or exasperation of Inflammatory Bowel Diseases (IBDs). New studies have specifically linked IBD development to gut dysbiosis, a changed gut microbiome composition associated with a reduction in beneficial bacteria and associated compounds. A crucial component of a healthy gut microbiome are short-chain fatty acids (SCFAs). Alterations in SCFA ratios have been directly associated with IBDs. Our goal is to develop an early detection system that would enable people to check for patterns of dysbiosis linked to IBDs in order to discover autoimmune inflammation early. This would allow for prompt intervention and prevent inflammatory damage to the gut which leads to the severe quality of life reduction that many patients report. [Wiki](https://2022.igem.wiki/fau-erlangen)https://static.igem.org/peertube/streaming-playlists/hls/153fd4a7-4fa0-4f82-ba42-199ede4dee27/da6da8d0-a44a-46e1-947a-675b758c6466-master.m3u8https://video.igem.org/videos/embed/3CbZSBFtQMghR2LmEQReQc855092023-10-22T10:40:54.430ZYES2023 Team PresentationsNOhttps://video.igem.org/w/sTwvenrP9RZyXD66xAmAPphttps://video.igem.org/lazy-static/thumbnails/2faafef4-3f6c-4c3d-b987-80ed46620ba9.jpgHiZJU-China: Biolens (2023) - Team Presentation [English]**Title:** Biolens **Description:** Our project is dedicated to the prevention of myopia. The name of our project is biolens. We plan to load the modified engineered bacteria with contact lenses. The modified engineered bacteria can produce salidroside under the condition of elevated intraocular pressure, which is a biological antioxidant and has the function of preventing myopia. In addition, we designed the engineered bacteria to be coated with liposomal vesicles embedded with specific transporters to prevent metabolic waste from being excreted and allow only salidroside to pass through. When biolens is not in use, a sleep switch is designed, in which the engineered bacteria are in a sleep state. In the use state, changes in light and temperature conditions trigger the sleep switch controlled by double input and door, and the engineered bacteria recover and enter the working state. [Wiki](https://2022.igem.wiki/hizju-china)https://static.igem.org/peertube/streaming-playlists/hls/d9bf560f-5b94-4424-a9c3-2fe54de415e5/5523b316-654c-44a3-9447-45027ffb592c-master.m3u8https://video.igem.org/videos/embed/sTwvenrP9RZyXD66xAmAPp8650192023-10-22T11:21:38.322ZYES2023 Team PresentationsNOhttps://video.igem.org/w/tn6xsFAMMGdr7fVrLnW7Rvhttps://video.igem.org/lazy-static/thumbnails/e93e3b82-de2d-4125-8084-18cb590698d0.jpgANU-Australia: A modular bioaccumulation platform for heavy-metal bioremediation (2023) - Team Pr...**Title:** A modular bioaccumulation platform for heavy-metal bioremediation **Description:** In our project, we engineer heavy-metal binding proteins (MBPs) localised to encapsulin-nanocompartments delivered by bacteriophages into bacteria to capture and sequester toxic arsenic compounds. Our vision is to have engineered phages cause bacteria to produce the necessary bioremediation tools and clean up any heavy metal waste, not just arsenic. This strategy will be cost-effective, non-toxic and non-invasive. We successfully cloned and expressed encapsulins and novel metal binding proteins designed using machine learning methods. We also identified problems with the GC content of proteins designed using RFdiffusion, a new protein design program. Furthermore we cloned several guide RNAs into multiple phages and are beginning to test the delivery of our binding protein sequences into these phages. In the future we plan to test the binding and kinetics of our metal binding proteins, test the delivery of our sequences into phages and then expression in the phage target bacteria. [Wiki](https://2022.igem.wiki/anu-australia)https://static.igem.org/peertube/streaming-playlists/hls/dd98c753-e832-40f9-8518-99e5e786ff0f/5db58282-e1af-4448-8d92-8910e74b79a4-master.m3u8https://video.igem.org/videos/embed/tn6xsFAMMGdr7fVrLnW7Rv7080382023-10-22T11:40:08.394ZYES2023 Team PresentationsNOhttps://video.igem.org/w/m8e6L1wTMUjdsvuESQ2DHchttps://video.igem.org/lazy-static/thumbnails/2142fa9c-9406-46d3-a779-8838e5e1d086.jpgIISER-Bhopal: KeratiNoMore (2023) - Team Presentation [English]**Title:** KeratiNoMore **Description:** The increasing population, coupled with rising living standards, has led to a dramatic rise in the production and consumption of chicken meat. In 2023 alone, global chicken meat production is estimated to be 103.4 million tons, generating about 8.38 million tons of feather waste. Feather, made up of keratin, is recalcitrant to natural degradation and remains stable in the environment for 5-7 years, during which it causes a host of environmental and health hazards. The structural recalcitrance of keratin is due to the extensive disulphide crosslinks. Thus, the key to feather degradation lies in reducing these bonds. The enzyme cysteine dioxygenase inherent to Bacillus subtilis enables the secretion of sulphite to facilitate this reduction of disulphide bonds. Genes coding for cysteine dioxygenase, potent keratinases and a functional kill switch will be cloned to generate recombinant Bacillus subtilis. These bacteria will degrade feathers inside a fermentor efficiently and safely. [Wiki](https://2022.igem.wiki/iiser-bhopal)https://static.igem.org/peertube/streaming-playlists/hls/a2f90d64-6d3a-4bab-81d4-71ae1b016a71/084bb863-be11-45d3-b582-64f5c643b75f-master.m3u8https://video.igem.org/videos/embed/m8e6L1wTMUjdsvuESQ2DHc8960542023-10-22T11:45:47.694ZYES2023 Team PresentationsNOhttps://video.igem.org/w/e6RXkiWHPkVSeU9Bu8p66Ahttps://video.igem.org/lazy-static/thumbnails/a82669e4-84bf-4c1b-9deb-a691fcf8ef4a.jpgGuangxi-U-China: Engineered Bacteria with Nano-Immunomodulator for Precision The... (2023) - Team...**Title:** Engineered Bacteria with Nano-Immunomodulator for Precision Therapy of Triple Negative Breast Cancer **Description:** No abstract [Wiki](https://2022.igem.wiki/guangxi-u-china)https://static.igem.org/peertube/streaming-playlists/hls/6a184e82-f888-4e16-801f-78d34440ea40/7dccc122-63a8-4db8-b2dd-019c3a8e7e2a-master.m3u8https://video.igem.org/videos/embed/e6RXkiWHPkVSeU9Bu8p66A5970172023-10-22T11:50:54.834ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hj3uWWgtgvYb5RY64QzfcLhttps://video.igem.org/lazy-static/thumbnails/9df3bb08-448a-44d2-93b8-c83887ac2bb1.jpgHUST-UEVE-UPSaclay: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/hust-ueve-upsaclay)https://static.igem.org/peertube/streaming-playlists/hls/84172583-86c9-42ae-80d8-37e2f3e269ea/363b72cc-e50c-484f-a7e0-110109366505-master.m3u8https://video.igem.org/videos/embed/hj3uWWgtgvYb5RY64QzfcL8430232023-10-22T11:30:38.590ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1NmDXktMuoJNwvb3F6vtU1https://video.igem.org/lazy-static/thumbnails/efb393e9-ad1e-4f27-b672-ce8d72614550.jpgWaterloo: Guarden (2023) - Team Presentation [English]**Title:** Guarden **Description:** Guarden is an innovative project focused on enhancing agricultural sustainability through RNA interference (RNAi) technology. Our project harnesses the power of minicells, derived from Escherichia coli, as efficient carriers of small interfering RNAs (siRNAs) to protect plants from devastating viral infections. By genetically modifying our host organism and optimizing growth conditions, we have developed a reliable and scalable minicell production system. In parallel, we employ mathematical models to elucidate complex viral dynamics and thrip behavior to improve disease management. Our approach not only minimizes the need for chemical pesticides but also offers a sustainable solution for safeguarding crops, reducing production costs, and promoting food security. Guarden showcases a holistic strategy that incorporates synthetic biology, microbiology, and ecological modeling to create a more resilient and sustainable future for agriculture. Through our multidisciplinary efforts, we aim to inspire and empower the iGEM community to explore innovative solutions for pressing agricultural challenges. [Wiki](https://2022.igem.wiki/waterloo)https://static.igem.org/peertube/streaming-playlists/hls/0678f12f-b511-4709-889d-e56d61b0784c/cf1f1197-5996-4fb0-ac81-3128d9487577-master.m3u8https://video.igem.org/videos/embed/1NmDXktMuoJNwvb3F6vtU18440142023-10-22T10:49:18.471ZYES2023 Team PresentationsNOhttps://video.igem.org/w/nMWapm8BYER9mshQLU5oJbhttps://video.igem.org/lazy-static/thumbnails/ad519502-b501-4dcc-94e0-5c6a78a69c6d.jpgEdinburgh: Pollinator-friendly Biophotovoltaic Solar Panel (2023) - Team Presentation [English]**Title:** Pollinator-friendly Biophotovoltaic Solar Panel **Description:** Our interdisciplinary project tackles climate change and rising energy demands, revolutionizing renewable energy with biophotovoltaics (BPVs). Facing a 32% surge in energy demand by 2040, a shift to sustainable technologies is imperative. Solar energy, though promising, grapples with challenges in silicon-based panel manufacturing. BPVs, while promising, suffer from low conversion efficiencies. Focused on Synechocystis sp. PCC 6803, we enhance photosynthetic output with the MTR complex, and salt tolerance. Beyond energy, we repurpose BPV waste into artificial pollen for pollinator-friendly panels, aligning with circular economy principles by enriching essential amino acids, histidine, and lysine in our cyanobacteria waste. Biosafety is paramount, ensured by a zinc-inducible kill switch. Our project strides towards a sustainable energy future, marrying efficient BPVs, circular economy principles, and responsible deployment, addressing climate challenges within a concise framework. [Wiki](https://2022.igem.wiki/edinburgh)https://static.igem.org/peertube/streaming-playlists/hls/b079c295-c2dd-4c21-9372-a934570e9006/6d2723b7-a5a4-4dfb-82c5-9a3ef91ac439-master.m3u8https://video.igem.org/videos/embed/nMWapm8BYER9mshQLU5oJb8620342023-10-22T11:59:43.441ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bFZCpWPgbWv9VjXJUG5modhttps://video.igem.org/lazy-static/thumbnails/c7ba49bb-f0e2-4fe0-8744-20fe8e63f098.jpgSZ-SHD: Intelli-P (2023) - Team Presentation [English]**Title:** Intelli-P **Description:** Phosphorus is vital for crop growth, yet its limited availability as insoluble phosphate salts in rocks necessitates resource-intensive processing into fertilizers, depleting finite reserves. Our team offers a comprehensive solution for a more sustainable future: a dual-pronged approach involving a phytosensor to detect crop phosphate requirements and a smart phosphate biofertilizer. The phytosensor, equipped with a low-phosphate-responsive promoter and a bright GFP reporter, facilitates cost-effective monitoring of phosphate levels in plants. Furthermore, we've engineered bacteria to release insoluble phosphate into the soil by producing gluconic acid in response to plant-released salicylic acid, thereby enhancing phosphate utilization. This innovation holds immense promise in addressing phosphate scarcity and revolutionizing sustainable agriculture practices. [Wiki](https://2022.igem.wiki/sz-shd)https://static.igem.org/peertube/streaming-playlists/hls/5690e874-89b1-490f-8fee-a68bbcafe778/713e2497-622f-48d8-a0be-a933e55b5e8e-master.m3u8https://video.igem.org/videos/embed/bFZCpWPgbWv9VjXJUG5mod8810562023-10-22T12:10:33.521ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wRt6pWXNjbrcXxJuGVaTpihttps://video.igem.org/lazy-static/thumbnails/6bed1371-2789-426d-8110-11ca0ed901f0.jpgNanjing-BioXstem: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/nanjing-bioxstem)https://static.igem.org/peertube/streaming-playlists/hls/f9da4d27-8f22-4a33-ab5a-00f385c9552b/07e98564-734e-44c6-8553-aa924ba06ae5-master.m3u8https://video.igem.org/videos/embed/wRt6pWXNjbrcXxJuGVaTpi8730232023-10-22T12:18:21.403ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wKsoydABeCWyexBmzz7iaHhttps://video.igem.org/lazy-static/thumbnails/67425bfd-a58b-46eb-8220-6e233064119d.jpgGroningen: Bye-o-film: Combating Medical Implant-Related Biofilm Infections (2023) - Team Present...**Title:** Bye-o-film: Combating Medical Implant-Related Biofilm Infections **Description:** Bye-o-film tackles implant-related infections in prosthetic joint surgeries, driven by rising cases due to factors like obesity and an aging population. We propose an E. coli-based biosensor for early biofilm detection on implants and explore modified bacteriophages to disrupt biofilms, reducing antibiotic dependence. We designed a fluorescent protein-based biosensor reporter, and an electronic device sensor, accompanied by complementary software. Our mission includes raising awareness, advancing biosensors, and promoting phage therapy. This project offers a modular biofilm detection solution and enhances focus patient care addresses a global healthcare challenge with innovative technology, patient-centricity, and a mission to advance implant-related infection research and awareness. This multifaceted approach could transform biofilm management, ensuring safer experiences for those with medical implants. [Wiki](https://2022.igem.wiki/groningen)https://static.igem.org/peertube/streaming-playlists/hls/f9036796-71c2-4160-8883-50a1d42304b7/2430a392-29f0-4b83-be12-015cb32e18b3-master.m3u8https://video.igem.org/videos/embed/wKsoydABeCWyexBmzz7iaH9000172023-10-22T12:27:32.677ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1YXLeyQyeLr8AGEs7mxsMrhttps://video.igem.org/lazy-static/thumbnails/a6f9d721-b501-4bfa-8dd5-100f8245526e.jpgWHS-Fremont: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/whs-fremont)https://static.igem.org/peertube/streaming-playlists/hls/07f4041d-9187-4bf7-bea1-1a589a57434b/83a20e50-c569-4a35-917b-0c2b103eabfa-master.m3u8https://video.igem.org/videos/embed/1YXLeyQyeLr8AGEs7mxsMr8630102023-10-22T12:45:00.945ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5Rf1ZSXNsd5BRaVcM31Jgzhttps://video.igem.org/lazy-static/thumbnails/332e2b53-901e-4273-9d00-be4ee639612c.jpgSheffield: PARSE: PhAge deRived growth SlowErs (2023) - Team Presentation [English]**Title:** PARSE: PhAge deRived growth SlowErs **Description:** Molecular biology workflow is significantly impacted by microbial dynamics, which itself is heavily dependent on cell growth rate. To date, an automatic plasmid system in which growth rate can be reliably predicted and instigated has not yet been developed. Such a system would have several useful applications in bioproduction, co-culturing and directed evolution. Thus, our goal is to create a system that allows for Escherichia coli growth rate to be a genetically programmable parameter. To this end we have: developed a set of plasmid constructs that characterise bacteriophage growth inhibitor genes in E. coli, delineated a protocol with which to tune these growth slowers to an inducible promoter of choice; and begun to develop a multiplexed automated turbidostat to ease the gathering of necessary data. Simultaneously, significant mathematical modelling was performed to ensure that future iGEM teams have all the tools and understanding necessary to reliably control microbial growth. [Wiki](https://2022.igem.wiki/sheffield)https://static.igem.org/peertube/streaming-playlists/hls/2744a345-86e7-4d38-800f-52e6cf29f2ef/467bd488-9813-4a66-b65f-fa9ebdab6023-master.m3u8https://video.igem.org/videos/embed/5Rf1ZSXNsd5BRaVcM31Jgz8990102023-10-22T12:51:00.942ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1CSwaye4qoez5hLh4CUZtMhttps://video.igem.org/lazy-static/thumbnails/d162bb21-33c4-49f6-97fe-f653472acd98.jpgAFCM-Egypt: A therapeutic approach for Rheumatoid Arthritis using Mesenchymal St... (2023) - Team...**Title:** A therapeutic approach for Rheumatoid Arthritis using Mesenchymal Stem Cells for tissue-specific exosomal mRNA delivery **Description:** Our team has developed a novel therapeutic platform for Rheumatoid Arthritis (RA), which is an autoimmune condition that mainly targets synovial joints, resulting in prominent joint inflammation. Conventional treatments for RA can have dangerous side effects, especially with long-term use. Introducing our SUPER-Cell, which consist of mesenchymal stem cells that have been engineered to express a Syn-Notch receptor. This receptor is designed to specifically target autoreactive B-cells, while avoiding normal B-cell colonies. This is followed by release of our exosomal delivery system that carries our therapeutic CRISPR/Cas cargo to the autoreactive cells, initiating apoptosis of these cells and decreasing the progression of the disease. Our system is regulated by both external and internal control measures, to ensure its specificity and safety. We aim at turning our approach into a universal platform for managing other autoimmune conditions. [Wiki](https://2022.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/0525e8ea-6704-4de8-8d24-2b0fcb50308f/3c0c8267-a792-4f78-b9f2-41cb2bec9ee2-master.m3u8https://video.igem.org/videos/embed/1CSwaye4qoez5hLh4CUZtM88301022023-10-22T13:10:41.057ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uezPzseNjBTDEhxZXPHaTRhttps://video.igem.org/lazy-static/thumbnails/a12b628a-349d-4927-8588-0ac3b31719bd.jpgCornell: ENERGEM: Engineering Enzyme Reactions to Generate Methylxanthines (2023) - Team Presenta...**Title:** ENERGEM: Engineering Enzyme Reactions to Generate Methylxanthines **Description:** Methylxanthines are an important class of compounds used for various medical applications, including eye diseases, cardiovascular diseases, and respiratory illnesses. Cornell iGEM will be focusing on 7-methylxanthines in particular with ENERGEM to treat moderate to severe forms of myopia in patients where surgeries, such as LASIK or automated lamellar keratoplasty (ALK), cannot be performed. Traditional chemical synthesis methods produce low yields of these compounds, which contribute to expensive market prices for the medications that require them. Finding a cheaper, alternative route of synthesizing these chemicals through synthetic biology would help make a biological solution for myopia more affordable and accessible. ENERGEM has two primary focuses: engineering caffeine metabolizing enzymes NdmA, NdmB, and NdmD using E. Coli and using them to produce methylxanthines in a cell-free immobilized-enzyme reactor. [Wiki](https://2022.igem.wiki/cornell)https://static.igem.org/peertube/streaming-playlists/hls/e4a564dc-1825-4958-9c5c-44a969464f7b/9d44a9a8-6c18-42bb-9ecf-f7c45b3fc8c3-master.m3u8https://video.igem.org/videos/embed/uezPzseNjBTDEhxZXPHaTR8940382023-10-22T13:24:26.355ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8LyFWka6rMWyFVuHMrwy1xhttps://video.igem.org/lazy-static/thumbnails/8daedd9b-3445-4d4e-bc22-c3d32c7a64d6.jpgBITSPilani-Goa-India: Project CARKinos - a better way to treat Lung Cancer (2023) - Team Presenta...**Title:** Project CARKinos - a better way to treat Lung Cancer **Description:** Non-small cell lung cancer (NSCLC) accounts for 82% of all cancer cases in India and has an extremely poor prognosis. A characteristic specific to solid tumors is Antigen-Heterogeneity on the surface. This property neutralizes antigen-specific treatments, like Chimeric Antigen Receptor (CAR) - T therapy. To mitigate this problem, we propose a treatment which targets the adhesion mechanism of the tumor and disintegrates it. STAT3 inhibition, which focuses on this property, is thus exploited to aid CAR T-cell treatment. This treatment is centered on the drug Honokiol which inhibits STAT3. The drug is extracellularly displayed on T-cells via a modified Cannabinoid Receptor 1 (CB1) construct, and is to be released by the CB1 antagonist AM-6538 near the tumor site, thus minimizing side-effects of both CAR T and the drug. The treatment therefore expands the utility of CAR T therapy while also introducing genetically modified vectors as agents of drug delivery. [Wiki](https://2022.igem.wiki/bitspilani-goa-india)https://static.igem.org/peertube/streaming-playlists/hls/3ee8d76f-63e6-4ed3-8b3d-475c9a871a3f/9e9c4d20-5d57-4fec-9a66-20ca93d22b5c-master.m3u8https://video.igem.org/videos/embed/8LyFWka6rMWyFVuHMrwy1x8990212023-10-22T13:33:27.768ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ajQFLQGMLFCr2qqahQYNuZhttps://video.igem.org/lazy-static/thumbnails/517bba43-4360-4cb6-ac6f-aee4a99fb3f0.jpgHUBU-WUHAN-CHINA: Insecticide Pro Max (2023) - Team Presentation [English]**Title:** Insecticide Pro Max **Description:** The willow leaf beetle Plagiodera versicolora (Coleoptera: Chrysomelidae) is one of the most important forest pests worldwide, which primarily feeds the leaves of Salicacease plants. In this study, a combined strategy of microbial control and RNA interference-based technology was utilized to manage the P. versicolora. Recently, our team isolated a Pseudomonas chlororaphis B3-3G strain that exhibits certain resistance to P. versicolora, but the insecticidal effect was not ideal. To improve its anti-insect effect, we proposed to express double-stranded (dsRNAs) targeting the actin gene of P. versicolora in P. chloroaphis B3-3G. To further increase the accumulation of dsRNA, the ribozyme III encoding gene of P. chloroaphis B3-3G was knocked out via homologous recombination mediated by pK18mobsacB. At last, the dsRNA-producing Pseudomonas was sprayed on leaves of Salicacease plants to test its insecticidal activity. [Wiki](https://2022.igem.wiki/hubu-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/4b83a3b3-54ae-44c9-8623-14257ab8a309/007cdbfe-c794-47d1-90cd-d24c44923cd1-master.m3u8https://video.igem.org/videos/embed/ajQFLQGMLFCr2qqahQYNuZ8700152023-10-22T13:40:43.980ZYES2023 Team PresentationsNOhttps://video.igem.org/w/6u9ULcqw28i39Y2jPirdtEhttps://video.igem.org/lazy-static/thumbnails/97259d78-29e6-4e9b-a86b-085ae56246c9.jpgBNDS-China: SAeking: Detection and in vivo Elimination Specifically Targeting St... (2023) - Team...**Title:** SAeking: Detection and in vivo Elimination Specifically Targeting Staphylococcus aureus **Description:** Staphylococcus aureus (S. aureus) is a common pathogen that often cause skin infections and food poisoning. Recent research has shown that the human digestive tract is its long-ignored reservoir. Our project develops an efficient and convenient detection and elimination kit for S. aureus. Detection is accomplished by heterogeneous application of the S. aureus quorum sensing (QS) pathway. Autoinducer peptides (AIPs) in the pathway act as intercellular communication molecules and activate the P2 promoter, further inducing E. coli lysis through endolysin SPN1S_Lys RZ, releasing S. aureus-specific Endolysin ClyC, LysDZ25, LysGH15, and antimicrobial peptide (AMP) LL-37 to achieve elimination. We employed the ssDNA aptamer PA#2/8 to detect environmental contamination, which binds to Protein A, a unique membrane protein of S. aureus. Electrophoretic mobility shift assay (EMSA) and Enzyme-Linked Oligonucleotide Assay (ELONA) are used to confirm the successful formation of the binding complex and select the optimal version of the aptamer. [Wiki](https://2022.igem.wiki/bnds-china)https://static.igem.org/peertube/streaming-playlists/hls/2c6c0278-848c-4009-8bb6-af6eed1a4b4c/ae4cd064-384a-4e02-9d23-5582afbcedd3-master.m3u8https://video.igem.org/videos/embed/6u9ULcqw28i39Y2jPirdtE68301112023-10-22T13:46:05.713ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hv4Tv5Uqq24eJpSBVFZuuohttps://video.igem.org/lazy-static/thumbnails/554c3d00-480c-42e0-958a-9c585edbf2d6.jpgWilliam-and-Mary: SOILution: Taking Synthetic Biology from the Lab to the Soil (2023) - Team Pres...**Title:** SOILution: Taking Synthetic Biology from the Lab to the Soil **Description:** Healthy soil is essential for all life on Earth. It is necessary for growing the food we eat, protecting our homes against flooding, and sequestering greenhouse gasses threatening our planet. However, globally, soil is rapidly degrading. While Synthetic Biology has shown great potential in laboratory settings to address global environmental problems, deploying constructs effectively into messy, heterogeneous soil environments, where they must survive and express circuit genes, remains a significant challenge. The overarching goal of our project is to address several impediments facing fieldable soil synthetic biology, including appropriate chassis selection, the presence of natural adversaries such as bacteriophage, and the largely dormant metabolic states of soil microbes. We established Mycobacterium smegmatis as a soil synthetic biology chassis, characterized circuit-containing bacteria and phage in soil microcosms, employed multimodal measurement techniques, developed a novel mathematical model, and provided a comprehensive educational guidebook for future teams eager to pursue soil synthetic biology. [Wiki](https://2022.igem.wiki/william-and-mary)https://static.igem.org/peertube/streaming-playlists/hls/85a12f15-e6d5-43f0-a5ad-e71282897f96/dc265392-1263-4e53-ae33-c608694b7ca2-master.m3u8https://video.igem.org/videos/embed/hv4Tv5Uqq24eJpSBVFZuuo89902142023-10-22T14:23:17.518ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rk1m8jpG4GoE6Em6cDXH8Yhttps://video.igem.org/lazy-static/thumbnails/139ddb30-5fcf-46ec-b53f-5491b9797db2.jpgFreiburg: CELLECT - Self-Regulating System to Ensure Phenotypic Stability in Mic... (2023) - Team...**Title:** CELLECT - Self-Regulating System to Ensure Phenotypic Stability in Microbial Cultures **Description:** Phenotypic instability in microbial cultures severely limits the applicability of synthetic biology. Be it for plastic degradation or vitamin synthesis, persistent gene expression is a must. Therefore, we have created CELLECT, an innovative autoregulatory system that makes microbial survival dependent on the existence of a target molecule. The system integrates a riboswitch, specific to the target compound, linked to a toxin-antitoxin mechanism that regulates cell survival. The binding of the target molecule to the riboswitch inhibits downstream toxin gene expression, allowing the cell to persist. Conversely, in the absence of the target compound, toxin levels steadily increase, resulting in cell death. CELLECT's versatile design makes it applicable across diverse host organisms for the optimization of microbial production or degradation of any compound. We employed computational models to predict system performance in laboratory experiments and demonstrated its functionality through the continuous bioproduction of vitamin B12 in E. coli. [Wiki](https://2022.igem.wiki/freiburg)https://static.igem.org/peertube/streaming-playlists/hls/cd1bcfdd-c6d9-4bac-8028-123575332d9a/7143fe6b-6af2-4933-80b6-b19121d61a6c-master.m3u8https://video.igem.org/videos/embed/rk1m8jpG4GoE6Em6cDXH8Y8960992023-10-22T13:54:53.410ZYES2023 Team PresentationsNOhttps://video.igem.org/w/k4QyCXJSXxNX85QqSVUbRShttps://video.igem.org/lazy-static/thumbnails/3d39aa22-c9f1-46c6-98bf-d8f2d924b2de.jpgHangzhou-BioX: Functional Vitamin B2-Enriched Bread to Help Mitigate Malnutrition (2023) - Team P...**Title:** Functional Vitamin B2-Enriched Bread to Help Mitigate Malnutrition **Description:** Vitamin B2 deficiency can lead to disorders of the mouth, skin, and genitalia. In China, the vitamin B2 deficiency rate is over 85%, but most people are not aware of it. To deal with it, we overexpressed GTP synthetase (ADE4) and vitamin B2 synthetases (RIB1 and RIB7) in the baker s yeast, Saccharomyces cerevisiae. Bakeries can produce bread and mantou (Chinese steamed bun) by using our yeast at no extra cost, and supply vitamin B2-enriched food for the general public to mitigate malnutrition. [Wiki](https://2022.igem.wiki/hangzhou-biox)https://static.igem.org/peertube/streaming-playlists/hls/9a66cb2e-e05c-4edf-bdbd-dec131d35064/b1f39d05-aba4-45f4-ac3d-37aa1ce712c3-master.m3u8https://video.igem.org/videos/embed/k4QyCXJSXxNX85QqSVUbRS7050262023-10-22T14:28:14.419ZYES2023 Team PresentationsNOhttps://video.igem.org/w/or5FWKu2UXsEzgT9uLhANBhttps://video.igem.org/lazy-static/thumbnails/59621676-1b2b-45e7-ac1d-96cd1364fa61.jpgUFlorida: Multifaceted Model to Study Sepsis Progression (2023) - Team Presentation [English]**Title:** Multifaceted Model to Study Sepsis Progression **Description:** Sepsis is defined as the body s extreme response to infection and causes immune dysregulation, which leads to inflammation and a cascade of changes that damages organ systems. The pathophysiology of sepsis is inextricably linked to bone marrow, as the hematopoietic niche controls the proliferation of myeloid and lymphoid progenitor cells in peripheral blood and boosts local immune response. Tracking the progression of sepsis and predicting the clinical outcome is difficult, as no model exists that accurately mimics human physiology or immune trends. In response, the UFlorida iGEM Team developed a multifaceted approach combining an in-vitro bone marrow organoid and an in-silico model. Our in-vitro model in combination with our in-silico model can produce trends that recapitulate the sepsis progression in a patient. The in-vivo model can inform our in-silico model by showing our predicted trends, and giving a real world example of certain rates. [Wiki](https://2022.igem.wiki/uflorida)https://static.igem.org/peertube/streaming-playlists/hls/b5a988c6-60b8-44ee-a040-d6fe00f7f297/fcd3aa8f-1f56-4669-899b-7a65826f880b-master.m3u8https://video.igem.org/videos/embed/or5FWKu2UXsEzgT9uLhANB7980192023-10-22T14:35:35.041ZYES2023 Team PresentationsNOhttps://video.igem.org/w/gr1moq2EBhGwtT4cvJtGY4https://video.igem.org/lazy-static/thumbnails/9b3d0ddc-2e85-4e3e-8fb5-61e8ad90ec9a.jpgAFMU-China: DNA-RNA chimeric circular probe-based DSN/Cas12a double enzymatic pl... (2023) - Team...**Title:** DNA-RNA chimeric circular probe-based DSN/Cas12a double enzymatic plasma trace microRNA detection system **Description:** The metabolic syndrome (MetS) is a common metabolic disorder caused by many risk factors, such as hypertension, dyslipidemia and central obesity, which increases the risk for cardiovascular disease, type 2 diabetes and even colon cancer. Nowadays, MetS has become one of the major public-health challenges worldwide. However, lack of early diagnosis hinders the timely awareness of MetS. Therefore, we have developed a new testing system with double enzymes, DSN and Cas12a, combined with one circular probe that consists of anti-sense DNA sequence for target microRNA and specific sgRNA, to catch the trace microRNA in the plasma and then convert target microRNA quantities into visible signals by colloidal gold particles for early MetS diagnosis. With linear and exponential amplification advances, our system could successfully detect the disease-related microRNA in plasma. After reading the results by APP, our system could provide the diagnosis report about MetS, even telemedicine. [Wiki](https://2022.igem.wiki/afmu-china)https://static.igem.org/peertube/streaming-playlists/hls/7cf6e409-1540-4896-91cd-041df75de18b/cefd55f0-b165-4f4a-862b-2a96a2daa40d-master.m3u8https://video.igem.org/videos/embed/gr1moq2EBhGwtT4cvJtGY48470512023-10-22T14:41:23.781ZYES2023 Team PresentationsNOhttps://video.igem.org/w/jm56fawaNamZJ6Tyc32qELhttps://video.igem.org/lazy-static/thumbnails/15c5d2c1-21e3-44a4-a84a-5f570a1d34c2.jpgSUSTech-CHINA: Construction of protective probiotics for precise prevention and ... (2023) - Team...**Title:** Construction of protective probiotics for precise prevention and control of drug-resistant biofilm **Description:** Bacterial biofilm is an environmental adaptation structure formed by microorganisms. After reaching maturity biofilms, intestinal pathogens will develop resistance to antibiotics and host immunity, elicit infection repeatedly, and induce diarrhea or inflammation of the gastrointestinal tract. In mature biofilms, the network structure formed by eDNA is crucial for the maintenance of biofilm stability. The objective of this endeavor was to modify Nissle 1917 so that it could identify Pseudomonas aeruginosa, stimulate the production of recombinant HMGB1 protein and PslG polysaccharide enzyme, degrade the compact structure established by eDNA, and eradicate resistance to biofilm. The use of these engineered bacteria in the prevention and treatment of diseases brought on by enteropathogenic biofilm infections is possible. [Wiki](https://2022.igem.wiki/sustech-china)https://static.igem.org/peertube/streaming-playlists/hls/9491e45f-f364-4074-bf09-d2143ed202d0/2e77bc1c-2e50-4a3d-995f-fbef1a1334f3-master.m3u8https://video.igem.org/videos/embed/jm56fawaNamZJ6Tyc32qEL8770262023-10-22T14:50:12.977ZYES2023 Team PresentationsNOhttps://video.igem.org/w/sWEALLao1fozihcFKz5wWHhttps://video.igem.org/lazy-static/thumbnails/abf3360f-8170-4eb6-b3c1-a949c93b384f.jpgIISER-Kolkata: Xanthacinator - Detection and Targeted Elimination of Xanthomonas... (2023) - Team...**Title:** Xanthacinator - Detection and Targeted Elimination of Xanthomonas, causal agent of Bacterial Blight of rice **Description:** India is one of the largest producers as well as consumers of rice and yet, our farmers are plagued by a host of diseases that cause immense crop loss every year. Bacterial blight, caused by Xanthomonas oryzae pv. oryzae causes severe epidemic in rice fields across the country, and destroys upto 75% of rice crop in some cases. The absence of detection kits in the market only leads to confusion and worsens the situation. Annual losses caused by bacterial blight is estimated at U.S. $3.6 billion in India alone. Existing solutions like chemical pesticides and antibiotics have not proved very effective, and after much research, we came up with a two fold solution to this problem. Xanthacinator comprises an easy-to-use colorimetric detection kit that farmers can use to detect Xanthomonas infection, and a novel outer membrane mediated delivery of CRISPR machinery for targeted killing of Xanthomonas. [Wiki](https://2022.igem.wiki/iiser-kolkata)https://static.igem.org/peertube/streaming-playlists/hls/da2f8e79-0f6c-4209-96cc-826c84ab956d/f94772c4-fd1d-430e-8841-70b82f3837e4-master.m3u8https://video.igem.org/videos/embed/sWEALLao1fozihcFKz5wWH8960722023-10-22T14:59:14.243ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2xPNZanQNy6nqQ3uHKULjchttps://video.igem.org/lazy-static/thumbnails/cd305ffd-09f7-4ec1-979a-679aec6ad365.jpgJCVI-UCSD: MACS: The Minimal & Adapted Carbon Sequestration Cell (2023) - Team Presentation [Engl...**Title:** MACS: The Minimal & Adapted Carbon Sequestration Cell **Description:** Anthropogenic activities have led to dangerous levels of atmospheric CO2, exacerbating global climate change. Minimized synthetic carbon-sequestration pathways offer a promising solution to this problem, proven in-vitro and in-silico; however, the deployment of these organisms in vivo remains unexplored. To fill this gap, we aim to install the POAP cycle, a carbon-sequestration cycle, into the minimal cell. The simplicity of this cell s genome affords us clarity in how the POAP cycle affects biological functions. We use the built-in Cre-Lox system and the ease of engineering functions (e.g. the conversion of fixed CO2 to valuable compounds) of the cell s genome, to genetically-build and tune the POAP cycle. We additionally report successful evolution of a thermal-resistant minimal cell strain that thrives above 44 C, optimizing the activities of the POAP enzymes. All in all, we present MACS: the Minimal & Adapted Carbon-Sequestration cell, a novel solution to the climate crisis using synthetic biology. [Wiki](https://2022.igem.wiki/jcvi-ucsd)https://static.igem.org/peertube/streaming-playlists/hls/0c8aa8d8-280b-4a0e-b608-89f73c195ebf/d9e919dc-1396-4f07-899c-b151a1d41b91-master.m3u8https://video.igem.org/videos/embed/2xPNZanQNy6nqQ3uHKULjc89903572023-10-22T15:06:32.636ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wH754mgE4xTXj5H9nnvyFKhttps://video.igem.org/lazy-static/thumbnails/fd283874-4e13-459f-a311-daa887b06fbb.jpgGEC-Guangzhou: Targeted therapy for colorectal cancer (2023) - Team Presentation [English]**Title:** Targeted therapy for colorectal cancer **Description:** We used Nissle 1917 as the chassis microbe because it is safe, reliable and easy to edit for the human body. We designed two modules of targeting and therapy. For the targeted part, we fusion expression of INP and HIPA genes, INP can anchor HIPA to the cell wall of engineered bacteria, and HIPA protein can recognize and bind to the receptor protein on the surface of cancer cells. In the physiotherapy module we introduced cytosine deaminase (CDase), which converts non-toxic 5-FC deamination into 5-FU, a classic chemotherapy drug for colorectal cancer. We hope to use N1917 to convert non-toxic 5-FC into 5-FU around intestinal cells to kill cancer cells and reduce the side effects of 5-FU treatment. [Wiki](https://2022.igem.wiki/gec-guangzhou)https://static.igem.org/peertube/streaming-playlists/hls/f8af6526-5556-40a7-a5b0-0240c08338f9/b16da030-2dc7-4676-af9b-f6ae4f482831-master.m3u8https://video.igem.org/videos/embed/wH754mgE4xTXj5H9nnvyFK8550292023-10-22T15:25:55.105ZYES2023 Team PresentationsNOhttps://video.igem.org/w/e1mR1RmXKVzqkr79Btdab5https://video.igem.org/lazy-static/thumbnails/a2bc513d-2951-420a-b322-31a23ecff431.jpgStockholm: LuciPEP: A bioluminescent biosensor for microplastic detection (2023) - Team Presentat...**Title:** LuciPEP: A bioluminescent biosensor for microplastic detection **Description:** The greatest threat to our aquatic ecosystems exists at a microscopic scale. Microplastics and nanoplastics are plastic particles that range from the nanometre scale up to 5mm. Almost everywhere scientists have looked they have found microplastics, yet only now are we beginning to understand the detrimental impact that they can have on our own health and that of ecosystems. Any solution relies on an understanding of the problem it is trying to tackle. However, all large scale monitoring efforts for microplastics have failed due to a lack of standardised and accessible detection protocols. This is the challenge that we aim to solve with LuciPEP. With the use of protein engineering, we have designed a bioluminescent fusion protein capable of binding microplastics and emitting a quantifiable glow. Our fusion protein is designed to be used in a sandwich-typed assay promising sensitive and accessible microplastic detection. [Wiki](https://2022.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/6953a618-e250-451f-9f97-02fc6b5d37fc/a95ea06e-d5ef-4e0b-8e26-c4d629be00a7-master.m3u8https://video.igem.org/videos/embed/e1mR1RmXKVzqkr79Btdab57710222023-10-22T15:33:12.648ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fPD3MTLagdEF3GQYBSPVzdhttps://video.igem.org/lazy-static/thumbnails/257e4f10-ab05-41a5-a843-9b65df649a54.jpgSCAU-China: Queen Ant's Assassin Efficient elimination of Solenopsis invicta que... (2023) - Team...**Title:** Queen Ant's Assassin Efficient elimination of Solenopsis invicta queen by intestinal bacteria **Description:** Solenopsis invicta Red imported fire ant, RIFA) stands as among the world's most harmful invasive species, causing varying degrees of damage to health, agriculture, ecology, and infrastructure. Current control methods, relying mainly on chemicals and physics, fall short due to incomplete eradication, constraints, environmental risks, and human hazards. To counter these limitations, we developed the Queen Ant's Assassin (QAA): a gene circuit driven by quorum sensing (QS) to release drugs to target and exterminate the RIFA queen precisely. Collaboratively designed, validated in labs, and modeled dynamically, E. coli were modified, QS used as a timing mechanism, allowing gut colonization and sequenced release of protease inhibitors and toxic proteins in RIFA larvae. Through RIFA's social feeding patterns, drugs concentrate in the queen, resulting in population collapse. This method excels in precision, efficiency, safety, and applicability, promising significant potential for RIFA control by governments and farmers. [Wiki](https://2022.igem.wiki/scau-china)https://static.igem.org/peertube/streaming-playlists/hls/7806baea-fc27-4930-8456-ab6eb2058d52/8e598b8e-9038-409c-8946-054ec0e0ec52-master.m3u8https://video.igem.org/videos/embed/fPD3MTLagdEF3GQYBSPVzd9000402023-10-22T15:40:57.781ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cYJnSYsnUyKdE6iQz21hYahttps://video.igem.org/lazy-static/thumbnails/0053e065-05ee-49fa-aca3-4c4e689e126d.jpgThinker-Shanghai: Modifiyng microbes to degrade cholesterol to prevent cardiovas... (2023) - Team...**Title:** Modifiyng microbes to degrade cholesterol to prevent cardiovascular diseases such as arteriosclerosis **Description:** In recent years, statistical data has shown a significant increase in the prevalence of high cholesterol related diseases due to changes in dietary habits. There is a higher frequency of processed foods being consumed. These foods are rich in high-cholesterol ingredients which inevitably leads to higher risks of various cardiovascular diseases and other health issues. Therefore, we aim to develop a harmless engineered probiotic powder that can decompose cholesterol in cholesterol-rich foods. This will allow us to produce low-cholesterol foods without altering the taste. The goal of our project is to advocate for a worry-free diet for individuals with high cholesterol without relying on medication thereby promoting healthy eating habits to the wider public. By providing people with more dietary choices, we can help them reduce cholesterol intake without significantly altering their diet, thereby addressing the issue of high cholesterol and prevent more people from developing high cholesterol-related diseases. [Wiki](https://2022.igem.wiki/thinker-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/61004ad2-3e9d-4664-a4b2-3e3ddca35d29/2ac78cc0-e12e-4691-b906-cbaf19b58311-master.m3u8https://video.igem.org/videos/embed/cYJnSYsnUyKdE6iQz21hYa8800362023-10-22T16:10:37.617ZYES2023 Team PresentationsNOhttps://video.igem.org/w/coipjKp9aufKRCf4My8eZrhttps://video.igem.org/lazy-static/thumbnails/d01fbed7-f025-491f-88b1-97d00313d8ed.jpgFDR-HBPeru: Plast'e.co': Transforming Plastic into Biofuel (2023) - Team Presentation [English]**Title:** Plast'e.co': Transforming Plastic into Biofuel **Description:** Can we mitigate plastic pollution and simultaneously benefit our community? We are bioengineering E. coli containing genes for PETase, MHETase, aldA, fucO, and adhE. These genes will enable and enhance the conversion of PET plastic into Ethanol. This will reduce plastic pollution and provide a sustainable source of energy for rural communities in Peru. [Wiki](https://2022.igem.wiki/fdr-hbperu)https://static.igem.org/peertube/streaming-playlists/hls/5c319cd6-0080-49fe-bdd5-0ac42d18fdcf/eb4b70c5-b7ef-427b-a75a-27cb181c034d-master.m3u8https://video.igem.org/videos/embed/coipjKp9aufKRCf4My8eZr8960322023-10-22T15:50:29.775ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7yMCTUjaDtpLfq25cFwsJmhttps://video.igem.org/lazy-static/thumbnails/2c240ed0-e6c1-40e8-a98c-b6c61a4eb055.jpgCSU-CHINA: Design a cell to secret GnRH in a pulsatile fashion (2023) - Team Presentation [English]**Title:** Design a cell to secret GnRH in a pulsatile fashion **Description:** GnRH is a hypothalamic decapeptide produced and secreted by the hypothalamus in a pulsatile fashion. The most important role of GnRH is to maintain the activity of the HPG axis and stimulate the development of sexual organs. One treatment of GnRH secretion disorders is pulsed stimulation, in which GnRH is injected into the body in a 2-5 hours cycle to simulate physiological processes.However the most worrying problem is that the frequent injections easily lead to infection. Thus, our team GnRH Timer has been inspired to design a cell, which can work as a pulsatile GnRH stimulation inside human body . Compared to previous treatments, we are able to make it more convenient and reduce the risk of infection. Together with our work in human practices field along with the prediction made in dry lab, we want to solve their real life problem and expand the impact of our project. [Wiki](https://2022.igem.wiki/csu-china)https://static.igem.org/peertube/streaming-playlists/hls/352ac1c1-631b-4e4a-bbb2-ea6d858e3ac0/9b81cf54-25ad-4f92-87fd-a3945618b2a9-master.m3u8https://video.igem.org/videos/embed/7yMCTUjaDtpLfq25cFwsJm8520162023-10-22T15:56:01.040ZYES2023 Team PresentationsNOhttps://video.igem.org/w/u5gCzzJBfQipdQX7poV1Buhttps://video.igem.org/lazy-static/thumbnails/88e8f28c-4b06-45a3-94ef-a9301e1540e8.jpgJilin-China: Mela-no-more ----Innovative Bacterial Therapy for Targeted Treatment (2023) - Team P...**Title:** Mela-no-more ----Innovative Bacterial Therapy for Targeted Treatment **Description:** Melanoma, characterized by its aggressive nature, high incidence, and tendency for metastasis, results in significant cases and deaths on a global basis. The current therapeutic methods suffer from problems such as poor efficacy and strong side effects year, highlighting an urgent need to alternative treatment. This year Jilin-China aims to achieve regulated and precise treatment of melanoma. E.coli Nissle1917, a kind of non-pathogenic bacteria is selected and equipped with three systems: the regulatory system controlling the expression of engineered bacteria, and therapeutic genes carefully screened to achieve effective treatment, with Toxin-Antitoxin system ensuring bio-safety. Here, we present a promising alternative to current treatments with improved convenience and safety. [Wiki](https://2022.igem.wiki/jilin-china)https://static.igem.org/peertube/streaming-playlists/hls/e3587d84-8c21-4fe7-9eff-ba51de35d612/f00cea24-9662-4778-a919-90976c91bdbc-master.m3u8https://video.igem.org/videos/embed/u5gCzzJBfQipdQX7poV1Bu84001382023-10-22T15:20:34.147ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wXDG8PwuDEesn8KsMUJh6Lhttps://video.igem.org/lazy-static/thumbnails/3ac75543-0a74-49c0-a430-a78bf9f15f38.jpgSVCE-CHENNAI: Agrobuddy: Lab-grown Heroes on a Dual Mission (2023) - Team Presentation [English]**Title:** Agrobuddy: Lab-grown Heroes on a Dual Mission **Description:** Agriculture is an essential industry that provides the world with food and sustenance. The presence of agricultural pests, which can cause significant damage to crops and reduce yields, is one of the challenges that farmers face. Another emerging environmental concern is the proliferation of microplastics in agricultural fields. Microplastics have been a global environmental concern owing to their widespread pollution, which may pose risks to food security and human health once they enter agricultural soils. Thus, in our project, Bacillus megaterium was engineered to effectively produce extracellular laccase and crystal proteins with the help of an inducible bi-directional circuit. A kill switch was also built to initiate suicide once the engineered bacteria were released from the desired environment for biosafety. Our project provides a novel method to kill pests and degrade microplastics simultaneously in the agricultural field. [Wiki](https://2022.igem.wiki/svce-chennai)https://static.igem.org/peertube/streaming-playlists/hls/fab74bb0-347d-463b-9a94-9aaddc25917e/faf80bd4-b1f2-424d-84db-7d9767cfa293-master.m3u8https://video.igem.org/videos/embed/wXDG8PwuDEesn8KsMUJh6L7050402023-10-22T16:04:51.000ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2E3Qy62zzC6hfdMqHLKLeohttps://video.igem.org/lazy-static/thumbnails/34aebe51-cccc-4d75-ad7b-15879347408e.jpgRDFZ-CHINA: Acnedote: Innovative acne treatment via EGF growth factor and LCFA a... (2023) - Team...**Title:** Acnedote: Innovative acne treatment via EGF growth factor and LCFA absorption. **Description:** In recent years, acne has emerged as a leading cause of appearance-related anxiety among adolescents, affecting approximately 94-95% of pubertal individuals worldwide. While there are existing topical treatments, their effectiveness is often unsatisfactory. Therefore, we aim to utilize synthetic biology techniques to enhance E. coli Nissle 1917 for acne treatment. For the inflammatory stage of acne, we have engineered the expression of FadL/FadD metabolic pathway proteins to absorb and break down long-chain fatty acids(LCFAs) on the face, reducing inflammation. We have also incorporated silver ions to eliminate P. acne. For the recovery stage, we introduced plasmids for the exogenous secretion of Epidermal Growth Factor(EGF) to enable E. coli to heal scars. This innovative approach efficiently addresses multiple acne-related issues all at once, and it has been integrated into a double-stage patch named Acnedote , which holds great promise for effective acne treatment. [Wiki](https://2022.igem.wiki/rdfz-china)https://static.igem.org/peertube/streaming-playlists/hls/0d69267d-ff14-4f28-bf42-7bfbfbdf0dd0/1effc29d-eadf-461b-a69f-0b9a1b285e80-master.m3u8https://video.igem.org/videos/embed/2E3Qy62zzC6hfdMqHLKLeo8490392023-10-22T16:26:01.077ZYES2023 Team PresentationsNOhttps://video.igem.org/w/aD6ZihCw7KNg16Ud54HrAahttps://video.igem.org/lazy-static/thumbnails/5f0f9675-2385-44a4-9254-cc59af038d22.jpgAustin-UTexas: Assa-cin: Controlling bacterial plant pathogens through a modular... (2023) - Team...**Title:** Assa-cin: Controlling bacterial plant pathogens through a modular microcin expression system **Description:** Plant pathogens pose a serious threat to agriculture, causing around $220 billion in global crop damages annually. Our project aims to fight bacterial plant pathogens using microcins, an emerging class of antimicrobial peptides that many bacterial species secrete as a weapon for interspecies competition. To protect crops from bacterial pathogens, we engineered a modular system for secreting microcins from a plant symbiont to kill a target pathogen. Our system utilizes two plasmids. The first encodes the secretion system proteins required for export of the microcins. The second plasmid expresses the microcin and its immunity protein which confers resistance to microcin toxicity. This modular and easily reprogrammable system can potentially protect crops from a broad range of bacterial plant pathogens. Overall, we identified novel microcins in the genomes of plant pathogens, cloned examples from three different pathogen families, and tested the effectiveness of 9 identified microcins against onion pathogens. [Wiki](https://2022.igem.wiki/austin-utexas)https://static.igem.org/peertube/streaming-playlists/hls/4e107525-7451-487d-b78d-a1a522188c59/e56739c6-6ad9-41ea-a5d0-e80e13389dd0-master.m3u8https://video.igem.org/videos/embed/aD6ZihCw7KNg16Ud54HrAa8470642023-10-22T16:32:06.739ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vjfPN6qAwvV9ij7rUpRHnUhttps://video.igem.org/lazy-static/thumbnails/8af35b45-d256-4137-9084-3b7c033abc46.jpgUNT: Engineering Methanotrophs for the Synthesis of Value-Added Products (2023) - Team Presentati...**Title:** Engineering Methanotrophs for the Synthesis of Value-Added Products **Description:** Greenhouse gasses are major contributors to climate change, of which methane and carbon dioxide are some of the most potent. Genetic modification of the methanotroph species, a bacteria able to naturally metabolize methane and carbon dioxide, is a solution to this issue. Considerable work has been dedicated to the genetic engineering of methanotrophs, but a lack in diverse, adaptable, and consistent gene editing remains an issue. Engineering of the Anderson Promoter Series in Methylococcus capsulatus (Bath) and Escherichia coli was performed for the series dynamic range of activity with little restrictions on cellular growth. The series led to an inconsistent expression of fluorescent activity for our purposes, resulting in the development of a novel mutagenesis promoter library. The mutagenized promoters were able to successfully generate a full dynamic range of expression, demonstrating an effective biocatalyst with the potential for simultaneous greenhouse gas mitigation and yield of industrially relevant products. [Wiki](https://2022.igem.wiki/unt)https://static.igem.org/peertube/streaming-playlists/hls/ed658b6d-bb85-4239-a009-c780081f1192/cae68365-1603-460b-9013-493524149fe3-master.m3u8https://video.igem.org/videos/embed/vjfPN6qAwvV9ij7rUpRHnU8470112023-10-22T16:40:16.298ZYES2023 Team PresentationsNOhttps://video.igem.org/w/dAATjVnbotwhDLBsC5xax2https://video.igem.org/lazy-static/thumbnails/23e2d4c6-fbed-48b0-a5eb-b607e3ae56ac.jpgHS-Shanghai: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/hs-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/66027361-61e9-4850-980b-dc26a456e6e3/9f7e19e3-4ff6-4894-988c-92e37f925ed5-master.m3u8https://video.igem.org/videos/embed/dAATjVnbotwhDLBsC5xax28650252023-10-22T17:23:26.597ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cMG6UBKqQ7Lm1JYsZSSxrbhttps://video.igem.org/lazy-static/thumbnails/7a1226f5-3803-4a1f-9b0a-e19fb6c15fea.jpgChalmers-Gothenburg: SoDoVi - Essential Vitamins from Sourdough (2023) - Team Presentation [English]**Title:** SoDoVi - Essential Vitamins from Sourdough **Description:** This years project focused on the metabolic pathways of yeast and lactobacillus to try and produce a sourdough, containing the respective microbe, that produced essential vitamins. We designed this to be done by introducing foreign genome from other species of bacteria. Our hope for the project to help combat the issue of malnutrition concerning vitamin A, and offer an alternative source of B12 besides animal based products. [Wiki](https://2022.igem.wiki/chalmers-gothenburg)https://static.igem.org/peertube/streaming-playlists/hls/5f75b563-a58c-4388-9bdc-099bd3eb5f20/ca2a89d4-505a-46a8-974d-e1fae68cb47f-master.m3u8https://video.igem.org/videos/embed/cMG6UBKqQ7Lm1JYsZSSxrb8710412023-10-22T16:18:29.595ZYES2023 Team PresentationsNOhttps://video.igem.org/w/u78esTv1xRBqZcqHUX6bePhttps://video.igem.org/lazy-static/thumbnails/4e45156c-428b-46ce-ae38-9c61dd58550f.jpgHainanU-China: Inflammation fighter (2023) - Team Presentation [English]**Title:** Inflammation fighter **Description:** At present, acne is one of the most common skin diseases in the world, affecting the lives of the general people, among which adolescence is the highest age group of acne. Adolescence is a very special stage of life, when students often feel upset and tired from skin problems caused by physical changes and hormonal production. With the increase of skin problems such as acne, adolescent adolescents often feel frustrated and low self-esteem, which brings great difficulties in their learning and social interaction. The application of engineered bacteria to the production of antimicrobial peptides can provide safer and more effective treatments for teenagers, further helping them to improve their skin problems and get rid of the negative effects of acne. Such a program would be very popular with adolescent parents and students because it meets their expectations and needs for health and beauty. [Wiki](https://2022.igem.wiki/hainanu-china)https://static.igem.org/peertube/streaming-playlists/hls/e39acd53-b72a-42f8-9e7a-348d64e17581/63cd41ee-6512-4bfa-b8fc-e73fa1e2524b-master.m3u8https://video.igem.org/videos/embed/u78esTv1xRBqZcqHUX6beP9000202023-10-22T17:15:48.478ZYES2023 Team PresentationsNOhttps://video.igem.org/w/j4NJDTNDKZLe9x2ZM7YRUyhttps://video.igem.org/lazy-static/thumbnails/4cba1a7f-7a9d-4f8e-8589-c8ea18870009.jpgSquirrel-Guangzhou: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/squirrel-guangzhou)https://static.igem.org/peertube/streaming-playlists/hls/924c8766-4ddd-4c6b-a7b0-2f722e2425cc/7358c2ee-a0ee-47a9-a9f7-e913c88b1f53-master.m3u8https://video.igem.org/videos/embed/j4NJDTNDKZLe9x2ZM7YRUy8070282023-10-22T18:01:53.883ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rL3JCQR3nCiwwqmgFJK2njhttps://video.igem.org/lazy-static/thumbnails/75d2da28-5a20-4815-bed6-702283a3bb00.jpgMarburg: Expanding the range of transformable non-model plants through the devel... (2023) - Team...**Title:** Expanding the range of transformable non-model plants through the development of synbio tools for Agrobacterium **Description:** The looming threat of climate change poses an immediate risk to the global food supply. This makes the development of reliable tools for plant synbio critical, if we are to successfully produce climate resistant crops. Despite their urgency, plant synbio projects are rather scarce in iGEM due to the exceptionally hard process of plant transformation. This year, the Marburg iGEM team tackled this problem by refining plant transformation protocols for non-model species, culminating in the first successful transformation of Bambara groundnut, a valuable legume for African countries. Furthermore, we thoroughly characterized novel genetic parts in Agrobacterium, and used them throughout several iterations of the DBTL cycle to create constructs that aim to enhance plant transformation efficiency and broaden the range of transformable plants. Ultimately, we hope to enable future teams to further extend the garden of plant projects in iGEM with new and diverse plant species. [Wiki](https://2022.igem.wiki/marburg)https://static.igem.org/peertube/streaming-playlists/hls/d09ae0c0-9773-4cc8-92fc-d509a91ada70/16257233-91cc-4048-93b7-86c506154a9c-master.m3u8https://video.igem.org/videos/embed/rL3JCQR3nCiwwqmgFJK2nj8820792023-10-22T18:10:37.442ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vbWyrbcyhHDvyjWS4eNpMmhttps://video.igem.org/lazy-static/thumbnails/a2a1ac0b-95a7-4df3-9724-fc34487474bb.jpgBioplus-Shanghai: Chinese herbal medicine meets synthetic biology Biosynthesis o... (2023) - Team...**Title:** Chinese herbal medicine meets synthetic biology Biosynthesis of UGT72B2 from Isatis indigotica **Description:** War, famine and plague are the three major challenges facing humanity. The COVID-19 pandemic in recent years has made people actually aware of the immense threat posed by this modern plague. Modern pharmacology and clinical practice have demonstrated the significant antiviral properties of various plants. Therefore, it is crucial to utilize synthetic biology to identify and synthesize antiviral compounds found in plants on an industrial scale for drug development. In this study, we employed pre-transcriptomic data to screen and clone the antiviral-related genes UGT72B2 in I. indigotica. Subsequently, we constructed a prokaryotic expression vector to characterize the function of UGT72B2 through in vitro enzymatic reaction. The enzymatic assay revealed that UGT72B2 catalyzes the production of glycosides from four types of lignans, namely lariciresinol, pinoresinol, secoisolariciresinol, and matairesinol. Our research provides a foundation for the efficient heterologous synthesis of lignans or lignan-derivative glycosides, which are key antiviral components of I. indigotica. [Wiki](https://2022.igem.wiki/bioplus-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/ec601507-8a33-447f-8f80-fd4d52cc03e2/b584e32a-0e54-4fce-93b7-870c04bee2ba-master.m3u8https://video.igem.org/videos/embed/vbWyrbcyhHDvyjWS4eNpMm8330202023-10-22T18:45:23.602ZYES2023 Team PresentationsNOhttps://video.igem.org/w/o47fGwMW16hq6CYjNB3Gx5https://video.igem.org/lazy-static/thumbnails/3c1f3d9c-43c8-414d-9b80-3bb765741d9b.jpguniCRETE: Revolutionizing Pesticide Monitoring With DeltaSense: An Innovative Ce... (2023) - Team...**Title:** Revolutionizing Pesticide Monitoring With DeltaSense: An Innovative Cell-Free Aptamer Biosensor for Deltamethrin Detection. **Description:** Crete's cherished olive cultivation faces a grave threat: the perilous overuse of pesticides. Pesticide consumption in Crete alone is 3.230 tons annually. The use of the pyrethroid deltamethrin, employed to combat the olive oil fly (Bactrocera oleae) introduces a challenge for olive growers, as pesticide s neurotoxic properties pose a risk to non-target species and may exceed safe limits, disrupting the delicate environmental balance and impacting human health. Our solution is DeltaSense, a cell free aptamer biosensor that detects deltamethrin residues that exceed the permissible concentrations posed by EU, in water samples obtained through field sample collection. The aptamer binding to the pesticide in addition to three amplification cycles ensure our system s sensitivity and selectivity. Connecting with farmers, the public, and academic experts was crucial in shaping DeltaSense into a viable, sustainable solution, aligned with the community's needs and the preservation of Crete s agricultural heritage. [Wiki](https://2022.igem.wiki/unicrete)https://static.igem.org/peertube/streaming-playlists/hls/b29822b9-6745-47ad-b372-892e3839876a/006229d3-db2a-4a09-8394-c3c45acb44da-master.m3u8https://video.igem.org/videos/embed/o47fGwMW16hq6CYjNB3Gx57670152023-10-22T18:52:30.418ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pC9YpUpaHiDQ9hYwwhijcjhttps://video.igem.org/lazy-static/thumbnails/02782a7a-c924-433c-b45f-d851440f5e67.jpgBUCT-China: POMELO:Polymerase- enabled Molecular Computing (2023) - Team Presentation [English]**Title:** POMELO:Polymerase- enabled Molecular Computing **Description:** Biological molecule diagnostics hold great promise in the field of healthcare. The BUCT-China team has developed DNA molecular probes capable of weighted summation calculations through polymerase-mediated strand displacement reactions. These probes, organized into an artificial biochemical circuit resembling a neural network structure, can execute weighted summation on multidimensional biomarker input signals, providing more intuitive low-dimensional diagnostic results for in vitro diagnostics and disease identification. The introduction of polymerase provides a new weighting mechanism, reducing the design and manufacturing costs of weighted chains while simplifying the reaction process. This innovation makes it feasible to conduct molecular diagnostics involving high-weight targets. Moreover, the cell-free system enables microscale reactions, contributing to the safety and portability of the overall setup. [Wiki](https://2022.igem.wiki/buct-china)https://static.igem.org/peertube/streaming-playlists/hls/bf4e7e95-eb2e-4650-849a-c29829ac4500/f298b11e-bd94-4be1-a51a-41e76a7a2d6a-master.m3u8https://video.igem.org/videos/embed/pC9YpUpaHiDQ9hYwwhijcj7700262023-10-22T19:05:32.944ZYES2023 Team PresentationsNOhttps://video.igem.org/w/d8REhC9YRivUexfnvvn1ffhttps://video.igem.org/lazy-static/thumbnails/8363cd9e-2f09-4916-abcb-478c0d4ae89e.jpgBPI-China: Detection of mutiple miRNAs based on isothermal amplification on coll... (2023) - Team...**Title:** Detection of mutiple miRNAs based on isothermal amplification on colloidal gold and CRISPR technology **Description:** Myocardial infarction is a common disease worldwide. There are approximately 330 million current heart attack victims in China. miRNA was considered as one of the most potential new biomarkers of myocardial infarction.Therefore, the development of miRNA detection methods is of great significance. The design idea of this project was to modify the hairpin structure on the surface of colloidal gold particles, and then the target miRNA could open the hairpin structure to initiate isothermal amplification reaction. By constructing Cas12a and crRNA vectors, the reverse cleavage function of CRISPR technology was used to release fluorescent signals and complete miRNA detection. This project would establish a fast and convenient miRNA detection method based on CRISPR, helping people to conveniently and efficiently detect miRNAs and contribute to myocardial infarction prevention. [Wiki](https://2022.igem.wiki/bpi-china)https://static.igem.org/peertube/streaming-playlists/hls/62467975-0fff-42df-a50d-92bff33fe5b2/ce99abfd-af20-4180-bbc2-60d479c9efde-master.m3u8https://video.igem.org/videos/embed/d8REhC9YRivUexfnvvn1ff6420162023-10-22T19:18:50.901ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rbaxmqxDCcf4WcM1YTkBq1https://video.igem.org/lazy-static/thumbnails/7f199914-d76c-40c5-b306-dee8b7612999.jpgThrace: Depregut (2023) - Team Presentation [English]**Title:** Depregut **Description:** Modern populations are increasingly overfed, malnourished, sedentary, sunlight-deficient, sleep-deprived, and socially-isolated.This seems to come with an impact for both their physical and mental health. Available research data tend to accuse modern environments of causing an epidemic of depression. Depressive disorder is a common mental disorder. It involves a depressed mood or loss of pleasure or interest in activities for long periods of time. Our project is based on the gut-brain axis. The gut-brain axis offers bidirectional communication between the central and the enteric nervous system. In this interaction, specific groups of gut microbiota play an important role. More specifically, the decrease of taxa that produce SCFAs result in the reduction of SCFAs. This gut dysbiosis is a major characteristic of various psychiatric disorders, including depression. We are proposing that by interfering with the concentration of SCFAs in the gut, we could possibly offer a personalized, targeted therapy for depression. [Wiki](https://2022.igem.wiki/thrace)https://static.igem.org/peertube/streaming-playlists/hls/cbdfc8a5-79ae-4651-81f5-1eb87c894304/9ca9ea72-cbcd-4dba-9bd4-b17cac691bf5-master.m3u8https://video.igem.org/videos/embed/rbaxmqxDCcf4WcM1YTkBq18410262023-10-22T19:14:18.323ZYES2023 Team PresentationsNOhttps://video.igem.org/w/dxaTDYcbCLo4o9VRci8GTnhttps://video.igem.org/lazy-static/thumbnails/01be6430-f669-4737-875a-8899c72e26b4.jpgIonis-Paris: Clean Heat : A groundbreaking combinational solution for heating an... (2023) - Team...**Title:** Clean Heat : A groundbreaking combinational solution for heating and water pollution control **Description:** Heating is not only becoming more and more expensive, but also the main source of CO2 emissions in buildings. Clean Heat, developed by the Ionis-Paris team, offers a grounbreaking solution to this problem via the genetic modification of the microalgae Chlamydomonas reinhardtii with the sraox gene. The latter is responsible for the thermogenic properties of Symplocarpus foetidus that can produce a 35 C heat differential. At the same time, water pollution by alpha-ethinylestradiol (EE2) is a pervasive endocrine disruptor that threatens human health and biodiversity. Inspired by the 2021 HiZJU iGEM team, Sinorhizobium meliloti is genetically modified by our team using the amoA and hao genes to degrade EE2 molecules. By its ability to produce vitamin B12, this strain is known to increase C. reinhardtii heat resistance. Thanks to this co-culture, the Ionis-Paris team aims at developing a cleaner and more affordable photobioreactor-hosted solution to generate heat while depolluting water. [Wiki](https://2022.igem.wiki/ionis-paris)https://static.igem.org/peertube/streaming-playlists/hls/6587d0eb-12c3-4f0d-82a7-326bf0677b0b/c6329613-f3d6-4289-963a-c60ee26384be-master.m3u8https://video.igem.org/videos/embed/dxaTDYcbCLo4o9VRci8GTn9000422023-10-22T19:00:16.045ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cMDh8fLUc6B12Z9kAsGAtShttps://video.igem.org/lazy-static/thumbnails/79e6ea0e-91b4-41f4-ade5-45ac3bd72ed6.jpgDuke: ICARUS - Intelligent Chimeric Antigen Upregulation System (2023) - Team Presentation [English]**Title:** ICARUS - Intelligent Chimeric Antigen Upregulation System **Description:** Chimeric antigen receptor (CAR) T-cell therapy has shown great promise in treating certain hematologic cancers by reprogramming patient T-cells to target tumor antigens. However, application of this therapy to solid tumors has been limited by issues such as heterogeneity of antigen expression, tumor inaccessibility, and immunosuppressive tumor microenvironments. Our project describes an integrated CAR-synNotch circuit, the Intelligent Chimeric Antigen Receptor Upregulation System (ICARUS), to address these limitations. This system utilizes engineered T-cells that secrete custom antigens to activate endogenous synthetic receptors and to amplify CAR T-cell stimulation, proliferation, and cytotoxicity. By enhancing T-cell stimulation through autocrine and paracrine signaling, ICARUS aims to improve CAR T-cell efficacy against solid tumors. This innovative gene circuit represents a novel approach to overcome current challenges in CAR T-cell therapy for solid cancers. [Wiki](https://2022.igem.wiki/duke)https://static.igem.org/peertube/streaming-playlists/hls/5f73f7e2-d837-4621-8d5b-86e8d2d2b3f8/19c786e1-a7cf-4a87-b434-cd4dc602a344-master.m3u8https://video.igem.org/videos/embed/cMDh8fLUc6B12Z9kAsGAtS8850232023-10-22T19:27:00.148ZYES2023 Team PresentationsNOhttps://video.igem.org/w/iPcafLDH7pE582EKNzFn1Yhttps://video.igem.org/lazy-static/thumbnails/2815467b-f969-4227-9c76-363db4a66aaa.jpgUIncheon: Symbionex : Quorum sensing based biocontainment system for eukaryotic ... (2023) - Team...**Title:** Symbionex : Quorum sensing based biocontainment system for eukaryotic cell in coculture condition **Description:** This year, our team has developed a biocontainment system for eukaryotic cells, particularly designed for yeast (S. cerevisiae) in coculture conditions, utilizing bacterial quorum sensing and a toxin-antitoxin system. This biocontainment system functions as a conditional kill switch, reliant on the concentration of AHL signal molecule from a bacterial quorum sensing. We have also strived to present the prospective applications of our biocontainment system. Our specific focus has been on co-culture applications for wastewater treatment, as demonstrated through our design of the bio-reactor. Our overarching objective is to harness the Quorum sensing biocontainment system to ensure versatile co-culturing of engineered eukaryotic cells and bacteria. In doing so, we aspire to contribute to the progress of synthetic biology within South Korea. [Wiki](https://2022.igem.wiki/uincheon)https://static.igem.org/peertube/streaming-playlists/hls/90423115-88e4-4d5c-b07f-eeb8bfc644d4/27095824-e838-444f-988e-8fc1eed9f6e2-master.m3u8https://video.igem.org/videos/embed/iPcafLDH7pE582EKNzFn1Y7120362023-10-22T20:20:24.464ZYES2023 Team PresentationsNOhttps://video.igem.org/w/c3ttYGwF8VcLmrXXjPC6Jphttps://video.igem.org/lazy-static/thumbnails/dccf898f-4461-424f-a167-437546d9523d.jpgTsinghua: TabcT: Thermal Activated Bacteria Cancer Therapy (2023) - Team Presentation [English]**Title:** TabcT: Thermal Activated Bacteria Cancer Therapy **Description:** TabcT (Thermal Activated Bacteria Cancer Therapy) is a temperature-controlled bacterial therapy developed by Tsinghua 2023, targeting breast cancer, and it offers the advantages of being cheap, convenient, controlled, continuous, and comprehensive. ECN, a probiotic is genetically modified and injected directly into the tumor. These bacteria cannot survive in aerobic healthy human tissue but colonize within the anaerobic tumor tissue. To precisely target and work, an AND gate is used. Only under anaerobic environment and with ultrasonic heat treatment, will the AND gate be activated and PD-L1 nanobodies be produced and released. Additionally, ECN is modified to create arginine-rich environment nearby, enhancing the performance of PD-L1. Meanwhile, through dry experiments, model and hardware design, we have made the project more perfect. We have also increased public awareness of breast health through human practice and education. We hope that our efforts can contribute to the solution of breast cancer. [Wiki](https://2022.igem.wiki/tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/596cf30c-bfa7-476a-9f58-7bceaa86765f/c8f0ba4c-5b5e-42ba-a172-576ae04aac57-master.m3u8https://video.igem.org/videos/embed/c3ttYGwF8VcLmrXXjPC6Jp90001382023-10-22T20:01:58.768ZYES2023 Team PresentationsNOhttps://video.igem.org/w/xmzYzpUj9HTMhtfFraQvr9https://video.igem.org/lazy-static/thumbnails/b8023e0f-095f-49f5-9d7d-ffbbff24c711.jpgBJWZ-China: A new tool of balancing VB12 and porphyrin synthesis to relieve acne (2023) - Team Pr...**Title:** A new tool of balancing VB12 and porphyrin synthesis to relieve acne **Description:** Cutibacterium acnes, the primary bacterium responsible for acne, not only causes post-inflammatory pigmentation spots and acne scars but also triggers inflammation in most adolescents throughout the prolonged course of the disease. Porphyrins secreted by Cutibacterium acnes have been identified as the main factor contributing to acne inflammation. Furthermore, this possesses pathways for both porphyrin and vitamin B12 synthesis with shared precursors. Reducing the level of vitamin B12 in the environment can effectively decrease porphyrin production and alleviate inflammation. For this purpose, BJWZ-China utilized arabinose operon in E.coli to regulate the expression of a vitamin B12 transporter called BtuB, maximizing VB12 absorption from the surroundings. Additionally, lactose operon used to control MazE/F and ccdB toxin protein expression, ensuring maintenance of biosafety measures. This project focuses on addressing concerns related to acne treatment among teenagers while seeking more stable and long-lasting solutions based on skin microbiome conditions. [Wiki](https://2022.igem.wiki/bjwz-china)https://static.igem.org/peertube/streaming-playlists/hls/fdeb1caa-5a00-4042-b65c-0ffa67bd5a36/c3cb15a3-e918-4ec0-8bc5-811027719660-master.m3u8https://video.igem.org/videos/embed/xmzYzpUj9HTMhtfFraQvr97810242023-10-22T20:14:10.444ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pH1sZdsqXoJzDjLob5MtgYhttps://video.igem.org/lazy-static/thumbnails/db482f2d-e267-4328-91c3-87f95e5bd006.jpgQueens-Canada: Recircuit (2023) - Team Presentation [English]**Title:** Recircuit **Description:** Through Recircuit, we will bridge the gap caused by plastic s resilience to degradation and cost to recycle by engineering a bacterium that uses PET plastic, found in clear water bottles, as a feedstock for PHB synthesis, a type of bioplastic. Recycling with a biological system not only could be cheaper than chemical methods, but such a system can repurpose PET, which takes hundreds of years to degrade, into a more environmentally friendly alternative that takes just a few weeks. As a result, we can reduce PET waste by transforming it into a bioplastic, which, after use, will be easier to degrade. Our project's main goals are: 1) Introducing parts that will allow for TPA (PET monomer) degradation 2) Improving PhaF, a PHB-binding protein that helps increase PHB production and accumulation and 3) Understanding the societal implications of our project by connecting with stakeholders and interacting with the community. [Wiki](https://2022.igem.wiki/queens-canada)https://static.igem.org/peertube/streaming-playlists/hls/bffbf872-1a88-48e3-9742-0928e87e2b72/1959adcf-55f2-47e7-9aef-957d1582c0e1-master.m3u8https://video.igem.org/videos/embed/pH1sZdsqXoJzDjLob5MtgY9000142023-10-22T20:50:51.980ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vsZv1jReBLpiipFubFZhTvhttps://video.igem.org/lazy-static/thumbnails/b82ee91a-0f2c-4e60-956f-0a8e03d8e39c.jpgHongKong-JSS: An effortless Synthetic Biological Formaldehyde Monitoring Device (2023) - Team Pre...**Title:** An effortless Synthetic Biological Formaldehyde Monitoring Device **Description:** Our project is inspired by the prevalent issue of indoor air formaldehyde pollution in newly renovated houses in Hong Kong. We aim to develop a biological device capable of detecting formaldehyde levels without requiring specialized knowledge or equipment. We used synthetic biology approach to engineered E. coli strains with formaldehyde-inducible promoter pFrmR and the HxlR operon. Our objective was to compare the effectiveness of these components. Notably, we successfully demonstrated the functionality of the pFrmR construct, exhibiting a color change in the presence of formaldehyde. Additionally, contrary to the literature suggesting tdTomato RFP's higher fluorescence intensity, we observed that dTomato RFP colonies displayed a more visible coloration, making it a more suitable candidate for our devices. Furthermore, we developed ADAM, an automated monitoring hardware device integrated with IFTTT technology, enabling real-time tracking of color changes in our biological device. The device's code is openly shared on our wiki platform. [Wiki](https://2022.igem.wiki/hongkong-jss)https://static.igem.org/peertube/streaming-playlists/hls/ee9dcb7b-80fc-4876-aef2-abde21739c03/51a7cc00-6e9d-4bc2-8601-b9d36a49b153-master.m3u8https://video.igem.org/videos/embed/vsZv1jReBLpiipFubFZhTv89201302023-10-22T21:05:50.513ZYES2023 Team PresentationsNOhttps://video.igem.org/w/dX8HrGaYWSJrYv3wfxEoHjhttps://video.igem.org/lazy-static/thumbnails/7477d2da-b66d-4713-884e-9c2a28b04125.jpgNNU-CHINA: Machine learning-aided engineering of two-enzyme system for PET depol... (2023) - Team...**Title:** Machine learning-aided engineering of two-enzyme system for PET depolymerization **Description:** One of the grand challenges of the 21st century is to solve the environmental problem caused by plastic waste. In 2016, researchers identified PETase that can depolymerize PET into monomers. However, PETase was limited by temperature ranges. To overcome this challenge, we reconstructed ancestral sequences of PETase by employing the profile-HMM algorithm. To further enhance the thermostability and catalytic efficiency of ASR-PETase, we used machine learning algorithms to identify stabilizing variants. Molecular dynamics (MD) simulation was used to demonstrate the driving force behind the increased degradation capacity. Subsequently, we constructed a two-enzyme system to produce homogeneous TPA to achieve closed-loop recycling of PET. Our project is committed to educating the public about the current situation and solutions to plastic pollution and to providing a green and sustainable solution strategy for PET degradation. [Wiki](https://2022.igem.wiki/nnu-china)https://static.igem.org/peertube/streaming-playlists/hls/68e05355-4e24-4dd5-a2a5-26d45c27e194/992f92c0-c3a7-4bd4-8038-edd658cf4e8c-master.m3u8https://video.igem.org/videos/embed/dX8HrGaYWSJrYv3wfxEoHj8600432023-10-22T20:59:14.325ZYES2023 Team PresentationsNOhttps://video.igem.org/w/skfEsQjG9cVvnzWatFXdL1https://video.igem.org/lazy-static/thumbnails/c7cadb1c-5448-417f-b606-03fcd3347035.jpgNYU-New-York: At-home Iron Level Detection Using Salivary Ferritin (2023) - Team Presentation [En...**Title:** At-home Iron Level Detection Using Salivary Ferritin **Description:** The problem of iron deficiency anemia affects close to 25% of the global population and most heavily those of lower socioeconomic status (StatPearls). Currently, iron levels are most commonly detected by labs testing blood samples from patients which can be expensive and time consuming. We re creating a non-invasive method to measure iron levels by detecting salivary ferritin, a protein that stores iron, using a peptide or DNA aptamer. We plan to create an electronic, inexpensive biosensor in which the aptamer detects and binds to ferritin in saliva, emitting a fluorescent signal proportional to the concentration of the ferritin analyte. This signal is then read by an Arduino sensor and prepared to be displayed on a user interpretation system that can generate understandable iron level results. We found both aptamers through extensive literature review and computational docking. We re now testing both aptamers through direct biotin-streptavidin ELISA. [Wiki](https://2022.igem.wiki/nyu-new-york)https://static.igem.org/peertube/streaming-playlists/hls/d53dc5f5-703a-4b6b-8f9d-081c9bf009d0/5fb9d162-e113-45d6-b67b-88377e32ae6c-master.m3u8https://video.igem.org/videos/embed/skfEsQjG9cVvnzWatFXdL17190192023-10-22T21:10:59.888ZYES2023 Team PresentationsNOhttps://video.igem.org/w/19w5mwYwFDvJsbcNJFpymthttps://video.igem.org/lazy-static/thumbnails/cd487f92-f86b-4e90-9584-e94a4a0b0281.jpgPLKLFC-1: Detecting Prostate Cancer - A Painless Transition (2023) - Team Presentation [English]**Title:** Detecting Prostate Cancer - A Painless Transition **Description:** Prostate cancer is one of the most common cancers and fifth leading cause of cancer death among men. It is often too late to receive a diagnosis after symptoms appear. For stage 4, the survival rate is only around 50%. While recent diagnostic tests are invasive, risky and expensive, we have created an accurate, safe and non-invasive method that does not require professional involvement. Our testing kit is a lateral flow assay test strip that detects PSMA levels. A prostate cancer patient will display levels of PSMA expression 100-1000 times than a healthy person. In our project, we used synthetic biology to engineer plasmids containing the sequences for PSMA antibodies(J591) and utilized a stain of E. coli to produce the antibody. [Wiki](https://2022.igem.wiki/plklfc-1)https://static.igem.org/peertube/streaming-playlists/hls/01307c0d-7212-49af-b535-cffe130ecd6b/d80988fc-b745-4eae-95d5-e7a20f6c6fe5-master.m3u8https://video.igem.org/videos/embed/19w5mwYwFDvJsbcNJFpymt8340652023-10-22T22:00:51.359ZYES2023 Team PresentationsNOhttps://video.igem.org/w/tHGMrToKf3HKaSNt3bFfyfhttps://video.igem.org/lazy-static/thumbnails/c92c3880-3d7c-4f90-8bd5-e48001ffec89.jpgBNU-China: Silinker Universe: A biotoolbox for efficient modification of multipl... (2023) - Team...**Title:** Silinker Universe: A biotoolbox for efficient modification of multiple biomolecules on mesoporous silica surfaces **Description:** Nanotechnology is experiencing rapid growth in both research and industrial communities. This provides new insights into tissue engineering, advanced pharmaceutics, and therapeutic application. Nanomaterials and nanostructures have unique physical and chemical properties, with advantages such as customizability and specificity. These advantages have driven the explosive development of nanomedicine over the last two decades. The surface modification of nano silica that provides it with a diverse range of potent biological functions. We have noted that the current chemical methods used for the attachment of different functional proteins are tedious, difficult to maintain the protein activity, and require the functional protein linkage-specific design. To facilitate protein surface modification on silica nanoparticles, we aim to design a unified and standardized protein binding mode. It is a novel type of SiO2 protein modification linker family called Silinker, which can modularly bind the desired functional proteins. [Wiki](https://2022.igem.wiki/bnu-china)https://static.igem.org/peertube/streaming-playlists/hls/e0795f45-3542-4ef8-8496-3429f75a04fe/6ec73d5a-04ea-4de6-93d5-5876f059dd22-master.m3u8https://video.igem.org/videos/embed/tHGMrToKf3HKaSNt3bFfyf8720982023-10-22T21:20:38.038ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2dgnHzQcZn2rE7nyMN4vsuhttps://video.igem.org/lazy-static/thumbnails/7d5af19c-29a6-49c6-b93d-132fe763d788.jpgTongji-Software: CASleuth the virus detective agency (2023) - Team Presentation [English]**Title:** CASleuth the virus detective agency **Description:** We have developed a cutting-edge gRNA design tool CASleuth. It is specifically designed for CRISPR virus detection. This tool aims to recommend highly efficient gRNAs that can accurately detect the target virus. Moreover, the recommended gRNAs are seamlessly integrated into the comprehensive database we have constructed. Our project leverages the power of deep learning, utilizing a convolutional neural network framework. This framework enables us to computationally analyze the relationship between the gRNA sequence, target sequence, and gRNA activity. Through rigorous analysis and optimization, we are able to identify gRNAs with exceptional discriminatory power, ensuring robust and accurate virus detection. The implications of our project are far-reaching. By providing a reliable means of gRNA selection, we facilitate large-scale population screening for infectious diseases. Additionally, our tool contributes to the wider dissemination of diagnostic technologies, thus enabling better control and containment of the spread of infectious diseases. [Wiki](https://2022.igem.wiki/tongji-software)https://static.igem.org/peertube/streaming-playlists/hls/09cf89ea-2938-4f5a-a922-bcde1bf17a0c/0cafbf88-44c0-4220-a135-285dbd90a312-master.m3u8https://video.igem.org/videos/embed/2dgnHzQcZn2rE7nyMN4vsu8690232023-10-22T21:55:02.547ZYES2023 Team PresentationsNOhttps://video.igem.org/w/r9UesKpo8EXZKYenrG9sb3https://video.igem.org/lazy-static/thumbnails/9da95560-56e4-4c1f-8a63-82a8d9ea14b7.jpgNCSU: Project Forget-Me-Not: A comprehensive study of Alzheimer s disease (2023) - Team Presentat...**Title:** Project Forget-Me-Not: A comprehensive study of Alzheimer s disease **Description:** Alzheimer s disease (AD) is a debilitating neurodegenerative disorder affecting over 55 million people worldwide. Currently no effective treatments exist to halt or reverse AD progression. This project develops a novel biotherapeutic to delay AD onset by engineering the probiotic bacterium Clostridium butyricum to produce the neuroprotective metabolite butyrate. Using a two-plasmid CRISPR/Cas9 gene editing system delivered via bacterial spores to the gut, C. butyricum is optimized to synthesize and secrete elevated butyrate. Through the gut-brain axis, butyrate confers neuroprotection by reducing oxidative stress, neuronal apoptosis, and neuroinflammation in the brain. Quantum Machine learning is used to identify the Mild Cognitive Impairment stage to administer the synthetic biotic and classify possible drug targets. For human practices, we authored a neuroethical report examining the ethics and responsibility of genetic Engineering and our project. Upon surveying the relevant stakeholders, we created a caregiver resource app that integrates AD patient information and routines. [Wiki](https://2022.igem.wiki/ncsu)https://static.igem.org/peertube/streaming-playlists/hls/cbb29b17-92be-42c4-b146-c01e2dfcce0e/ec554411-1615-40fc-85e6-e89ebc895153-master.m3u8https://video.igem.org/videos/embed/r9UesKpo8EXZKYenrG9sb39000142023-10-22T22:09:59.444ZYES2023 Team PresentationsNOhttps://video.igem.org/w/epzxSX8anZMG17kiRdinSDhttps://video.igem.org/lazy-static/thumbnails/b9166eeb-cd2d-4c5a-bf1a-a1b922135d02.jpgThailand-RIS: Powering Up Plant Defense (2023) - Team Presentation [English]**Title:** Powering Up Plant Defense **Description:** A growing issue that farmers are facing is the degradation of their crop harvest as a result of extreme environmental conditions that cause stress to their plants posing a threat to their livelihoods and causing adverse economic consequences. Team Thailand-RIS aims to alleviate this issue by modifying the Glutamate-cysteine ligase (GCL) gene which plays an important role in stress response via regulating the production of Glutathione (GSH). Thailand-RIS seeks to remove chloroplast transit peptides and replace them with a mitochondrial transit sequence in order to bypass the transport process and enable the production of GSH directly in the mitochondria. After testing, this modification has no impact towards the growth of the plant, and solely affects stress responses. Plant s which were subject to heat and saline stress did not show observable phenotype changes. However, plants which were subject to drought stress showed a 48 hour delay in wilting. [Wiki](https://2022.igem.wiki/thailand-ris)https://static.igem.org/peertube/streaming-playlists/hls/6c9195c1-7337-4677-b21c-72fc33272c35/fed4c2a3-2786-4bca-940a-e5cd42e57c7c-master.m3u8https://video.igem.org/videos/embed/epzxSX8anZMG17kiRdinSD7900592023-10-22T23:11:06.706ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rJXs5dd9Wr28oXfZmqxTx4https://video.igem.org/lazy-static/thumbnails/cbb840ba-2148-42f6-b963-bde2d814bd65.jpgLiuan-Shanghai: Synthetic Biofilms: A Greener and Safer Solution for Food Preser... (2023) - Team...**Title:** Synthetic Biofilms: A Greener and Safer Solution for Food Preservation **Description:** Food waste has been on the rise, prompting the development of food preservation films using biopolymers. However, these materials lack antibacterial properties, necessitating the use of additives. Synthetic biology offers a greener and safer approach by integrating antibacterial peptides into materials. In this project, we aimed to create food preservation films with extended decay time using existing biopolymer materials. We introduced antimicrobial peptides into silk fibroin-based films via a biological synthesis approach, starting with cecropin-1 but switching to Magainin-2 due to toxicity issues. These peptides were then integrated with silk protein solution to form fresh-keeping films that can be sprayed and coated on vegetables and fruits. To reduce costs, we further introduced low-cost antibacterial peptide Nisin, which is obtained from natural products. Our research demonstrated the market potential of our product, and we aim to achieve productization in the near future. [Wiki](https://2022.igem.wiki/liuan-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/d073e077-9dbc-4a4c-9852-11950b0b384d/94353355-87d9-4c2b-8f8b-3ea56d06fa93-master.m3u8https://video.igem.org/videos/embed/rJXs5dd9Wr28oXfZmqxTx4897082023-10-22T23:19:48.919ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vRYGSwQ1JanspzD9RTy5D3https://video.igem.org/lazy-static/thumbnails/72f10493-62e8-41d5-b88c-fcf48512273e.jpgJLU-NBBMS: Salmonella-based Colorectal Cancer Innovative therapy (2023) - Team Presentation [Engl...**Title:** Salmonella-based Colorectal Cancer Innovative therapy **Description:** Treatment measures for colorectal cancer usually include endoscopic resection, radiotherapy, drug therapy, etc., but the treatment of a specific treatment alone is not good. Based on the above background, the JLU-NBBMS team adheres to synthetic biology and tries to use engineering-modified bacteria to treat solid tumors. We plan to treat colorectal cancer using attenuated salmonella carrying small nucleic acid drugs. The attenuated salmonella can take small nucleic acid drugs, accurately target cancer tissue, and quickly enrich them. It can play an anti-cancer role through bacterial tumor-lytic action, small nucleic acid drug-specific killing of cancer cells, and the triple mechanism of stimulating the body's immune response. It can use salmonella itself while integrating targeted therapy and immunotherapy. Killing cancer cells, accurate and effective treatment of colorectal cancer. [Wiki](https://2022.igem.wiki/jlu-nbbms)https://static.igem.org/peertube/streaming-playlists/hls/f1d3694f-6c91-4902-8ce8-2836cc518d44/0423cf72-d672-4a9f-b5e8-7a12d7577a80-master.m3u8https://video.igem.org/videos/embed/vRYGSwQ1JanspzD9RTy5D38920252023-10-22T23:39:35.561ZYES2023 Team PresentationsNOhttps://video.igem.org/w/chyiv255uRtTqeKatBS4cThttps://video.igem.org/lazy-static/thumbnails/2f364626-6209-4396-a4ed-d83b57e61d99.jpgSZU-China: PolycoBead-Integrated control strategy for tomato gray mold disease b... (2023) - Team...**Title:** PolycoBead-Integrated control strategy for tomato gray mold disease based on RNA-biopesticides and plant immune-inducing factors **Description:** Tomato grey mold is a specific fungal disease caused by Botrytis cinerea. SZU-China aims to combat tomato grey mold through synthetic biology. Firstly, utilize RNAi technology to silence crucial survival genes and virulence factors of the B. cinerea, employing innovative approaches including binding cell-penetrating peptides (CPP) with shRNA to significantly treat tomato grey mold. Additionally, we will supplement this with plant immune technology by modifying Bacillus subtilis, enabling it to express immune-inducing factors such as flg22 and BvEP to trigger plant immune responses. Finally, based on the actual needs of agricultural applications, we creatively encapsulate the RNAi-based biopesticides and calcium alginate beads containing engineering B. subtilis that can trigger the immune effect of plants in a water-soluble film, forming a unique application model similar to laundry beads, which we call PolycoBead. We hoped that this novel plant fungal disease control strategy can bring enlightenment for future biopesticide research. [Wiki](https://2022.igem.wiki/szu-china)https://static.igem.org/peertube/streaming-playlists/hls/5b64550c-e5d8-44d4-b4f2-f9c9ca7163bd/4f99977f-022c-4baf-9415-655fd76d843a-master.m3u8https://video.igem.org/videos/embed/chyiv255uRtTqeKatBS4cT90001792023-10-22T23:54:35.552ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rXoipocbvuXE757UvWaFgShttps://video.igem.org/lazy-static/thumbnails/bf77970a-356e-41a8-a1c8-e32e0b0023b2.jpgNJTech-China-B: 1,5-PDO factory Engineering Escherichia coli for the de novo pro... (2023) - Team...**Title:** 1,5-PDO factory Engineering Escherichia coli for the de novo production of 1,5-pentanediol **Description:** 1,5-Pentanediol (1,5-PDO) is one typical C5 diol commonly used as a building block for the production of polyurethane coating and have a broad market. Currently, commercial manufacture of 1,5-PDO entirely relies on petroleum feedstock, which is constrained by the limited accessible C5 petroleum feedstocks. In our work, we developed a cell factory to produce 1,5-PDO from glucose in Escherichia coli through the synthetic biology tools. Firstly, an artificial 1,5-PDO biosynthetic pathway was designed and assembled in E. coli. Subsequently, we improved strain production ability by optimizing gene expression plasmid and knocking out the genes of branched pathways. Finally, we further optimized pathway by engineering limiting enzyme of MmCAR through the mutation and protein scaffold assembly strategies. After fermentation of 80 h, the 1,5-PDO production was reached to 48 mM (5.0 g/L). Our work provided insights for the biological production of 1,5-PDO from renewable carbon source. [Wiki](https://2022.igem.wiki/njtech-china-b)https://static.igem.org/peertube/streaming-playlists/hls/d2301de3-18c3-4344-a847-f386cca257fc/f0bbdebb-a638-4fb2-b7b1-028569693032-master.m3u8https://video.igem.org/videos/embed/rXoipocbvuXE757UvWaFgS8990502023-10-23T00:07:23.510ZYES2023 Team PresentationsNOhttps://video.igem.org/w/3d1YAJ9gW7yW4HtLC5Uuprhttps://video.igem.org/lazy-static/thumbnails/7edccb37-63cc-4e58-8a02-f620fd6dc812.jpgOUC-Haide: NCDriven-deHCHO: Remove formaldehyde from indoor environment (2023) - Team Presentatio...**Title:** NCDriven-deHCHO: Remove formaldehyde from indoor environment **Description:** In recent years, indoor formaldehyde pollution, a known human carcinogen, has increased in newly renovated homes, with existing removal methods facing issues like secondary pollution and inconsistent effectiveness. To address the pressing issue of formaldehyde pollution, our team has developed an innovative biological device. We've integrated genetically modified bacteria into this device to remove formaldehyde from the environment oxidatively. These bacteria express non-natural cofactor (NCD)-dependent formaldehyde dehydrogenase and formate dehydrogenase. To ensure their efficient function, we've introduced the NCD synthase system to alleviate competition for nicotinamide adenine dinucleotide (NAD). Additionally, we've incorporated a modified malic enzyme into the pathway to maintain the amount of NCD, enabling stable operation of the formaldehyde metabolic pathway. This comprehensive solution offers an effective and safe approach to combat formaldehyde pollution. [Wiki](https://2022.igem.wiki/ouc-haide)https://static.igem.org/peertube/streaming-playlists/hls/11dfcdcf-33a3-4ecb-97c0-bee21a03c19f/4099d753-9222-4da4-8f39-9d85cdd31f2f-master.m3u8https://video.igem.org/videos/embed/3d1YAJ9gW7yW4HtLC5Uupr7760442023-10-23T00:20:13.277ZYES2023 Team PresentationsNOhttps://video.igem.org/w/a2juFrkpiU3JwkhcxgQLQ5https://video.igem.org/lazy-static/thumbnails/28c1f00e-c5cb-41de-ab82-14989d2e799d.jpgUniMuenster: BeeVAX. Don't let the buzz become silent. (2023) - Team Presentation [English]**Title:** BeeVAX. Don't let the buzz become silent. **Description:** The conservation of biodiversity is an important task to tackle for a future worth living. This includes the Western honey bee, Apis mellifera, which is responsible for the pollination of 75% of the world's crop cultivation. However, the honey bee is threatened by the Varroa mite, a parasite that feeds of the bee s hemolymph and thereby transmits other diseases, such as the Deformed Wing Virus. This subsequently affects wild bees. To eliminate the Varroa mite, we utilize entomopathogenic fungi. However, they also weaken the bees. To tackle this problem, our aim was to optimize the Vitellogenin, an immune protein of the honey bee, via directed evolution and bioinformatics and by developing measurement and modeling approaches. To bring this topic closer to the broad public, we engaged in several educational activities, and also spread awareness to visually impaired people, which are often overlooked in STEM. [Wiki](https://2022.igem.wiki/unimuenster)https://static.igem.org/peertube/streaming-playlists/hls/491163ab-bd3c-42d4-88b4-cf25acedbaa4/87b97960-7446-4809-87fc-564b21dcc6fd-master.m3u8https://video.igem.org/videos/embed/a2juFrkpiU3JwkhcxgQLQ57550662023-10-22T22:33:20.928ZYES2023 Team PresentationsNOhttps://video.igem.org/w/24SawDex2iZYY5BoyPes5Yhttps://video.igem.org/lazy-static/thumbnails/08004360-0ff0-4542-bc33-680c851175a5.jpgMissouri-Miners: myRNA: A Novel Approach to Early-Stage Breast Cancer Detection (2023) - Team Pre...**Title:** myRNA: A Novel Approach to Early-Stage Breast Cancer Detection **Description:** Breast cancer is a disease in which cells in the breast grow uncontrollably, and it is the second most common cancer among women in Missouri and in the United States. One way to detect instances of breast cancer is to screen for microRNAs associated with breast cancer cell lines, which are present in the urine. We created a device similar to a pregnancy test designed to detect early-onset breast cancer using methods that are easier and less invasive than traditional methods. Our biosensor, called myRNA, contains a Cas13 protein that activates a quencher-fluorophore complex in the presence of miR-424-5p, a miRNA that is positively correlated with incidents of breast cancer. [Wiki](https://2022.igem.wiki/missouri-miners)https://static.igem.org/peertube/streaming-playlists/hls/08a348e9-1790-4794-b005-118a297b09c0/32339875-61a2-4a9f-9e32-28ec70d956c6-master.m3u8https://video.igem.org/videos/embed/24SawDex2iZYY5BoyPes5Y4890122023-10-22T22:36:50.806ZYES2023 Team PresentationsNOhttps://video.igem.org/w/okP8jf6oDu6NQVvRBPAsfchttps://video.igem.org/lazy-static/thumbnails/547d5261-fc14-4ac3-932f-47d14c0a96de.jpgThessaly: oPHAelia: From Waste to Worth (2023) - Team Presentation [English]**Title:** oPHAelia: From Waste to Worth **Description:** Olive Oil Mill Wastewater (OMW) is a toxic by-product of olive oil production. Greece is the third-largest olive oil producer globally, and in our region, Thessaly, OMW poses a significant problem due to the substantial quantities generated every year. The absence of effective OMW management methods has posed challenges for olive oil producers, often resulting in improper disposal that threatens the environment. Recognizing these problems, we proposed a solution: oPHAelia, an innovative approach relying on a synthetic consortium comprised of two bacteria, Escherichia coli BL21 (DE3) and Pseudomonas putida KT2440, with the dual objective of detoxifying OMW and harnessing the waste s potential to produce a high-value product, called Polyhydroxyalkanoates (PHAs). PHAs are a family of biodegradable polyesters that resemble synthetic plastics, offering a promising solution to the global plastic pollution crisis. [Wiki](https://2022.igem.wiki/thessaly)https://static.igem.org/peertube/streaming-playlists/hls/b4ed3982-91d1-4181-9104-c96e778aa4bf/e6427ff9-3137-47f8-994b-a40c2b491d5a-master.m3u8https://video.igem.org/videos/embed/okP8jf6oDu6NQVvRBPAsfc8690782023-10-23T00:27:28.840ZYES2023 Team PresentationsNOhttps://video.igem.org/w/t5WjZfV6i3VfmJxJP2LF4rhttps://video.igem.org/lazy-static/thumbnails/5ae90bcb-fcc4-49eb-9038-329614f7dff7.jpgIISc-Bengaluru: MetraMorpheus, our attempt to treat Endometriosis non-invasively... (2023) - Team...**Title:** MetraMorpheus, our attempt to treat Endometriosis non-invasively, using the power of mRNA! **Description:** We propose a unique, immunotherapeutic strategy to combat endometriosis. Largely, we aim to produce the antibody O-1L8-15 to block Interleukin-8 (CXCL8), a chemokine advancing endometriosis. A previous study used monoclonal antibodies to block IL8, reducing endometriotic tissue volume in monkey models. Our goal is to specifically target the peritoneal concentration of IL-8, using biochemistry and microfluidics to attach an aptide to an LNP, enhancing disease specificity. We have designed the mRNA constructs which code for this. These constructs have been shown to produce the antibody and secrete them out of the cell, (production within the 6 hours time point). The microfluidic chip we are using to assemble the LNPs has also been made and used successfully with good encapsulation efficiency. We are sharing our mRNA designs with the BioBricks registry, and for the first time, introducing an mRNA-based therapeutics platform for future teams to use. [Wiki](https://2022.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/db573307-2c6d-4328-a3e4-098f16cf2393/6767f24f-570e-4b1e-8984-01f2da8b2fbc-master.m3u8https://video.igem.org/videos/embed/t5WjZfV6i3VfmJxJP2LF4r8050462023-10-22T22:45:29.446ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qbup5c8Q55iTVwXFCB2vLfhttps://video.igem.org/lazy-static/thumbnails/268f02d7-1801-496f-b9d2-379e3d20ed9e.jpgParis-Bettencourt: Lubritect (2023) - Team Presentation [English]**Title:** Lubritect **Description:** Sexually transmitted infections (STIs)is a serious public health issue worldwide: an alarming incidence (1M new infections/day), prevalence (80% of sexually active individuals acquire human HPV by 45) and disease burden (82,000 deaths/year from hepatitis B). Our iGEM team aimed at solutions by understanding the needs and constraints for a sustainable solution from all stakeholders (public health, NGOs, patients). Lubritect leverages the power of naturally occurring lubricant, mucin, and the generative power of AI, to inform a product that is safe, effective and easy to handle. We combine a mucin-based hydrogel, shown to reduce transmission rates of HIV and HSV with AI-generated protein structures designed through RF-diffusion, to bind to surface proteins and catch target pathogens. This approach potentially circumvents the evolution of pathogenic escape mechanisms by using protein structures not found in nature. We hope to generate a personal lubricant product which can entrap pathogens, significantly reducing their transmissibility. [Wiki](https://2022.igem.wiki/paris-bettencourt)https://static.igem.org/peertube/streaming-playlists/hls/c3d2442c-87cc-4794-a9f2-8bf7269ede32/f18567cb-8032-447a-aeae-f3809ae22f97-master.m3u8https://video.igem.org/videos/embed/qbup5c8Q55iTVwXFCB2vLf8870342023-10-23T00:35:21.699ZYES2023 Team PresentationsNOhttps://video.igem.org/w/kt67UPeaEKaZTxJWdVw7xChttps://video.igem.org/lazy-static/thumbnails/43f5fe5d-82e5-4508-85de-c5161a3fc2c6.jpgBIT: DNA torch An initiative DNA damage effect evaluation system (2023) - Team Presentation [Engl...**Title:** DNA torch An initiative DNA damage effect evaluation system **Description:** Focusing on establishing a dose-effect relationship between DNA damage and biological effects using synthetic biology as a technical tool our project has developed a microbal sensor basing on genetic engineering. The sensor features its combination with micro-fluidic chips, miniaturized equipment and smart phones to build an active DNA damage effect evaluation system and to achieve multi-scene, automated and portable DNA damage detection. This combination would provide significent technical support for DNA damage risk monitoring, early warning and protection systems in different scenarios. [Wiki](https://2022.igem.wiki/bit)https://static.igem.org/peertube/streaming-playlists/hls/9da5df01-8485-46e8-8d99-50d8bc66f202/57cc1463-c5bb-49e1-b81d-482eb808c0b0-master.m3u8https://video.igem.org/videos/embed/kt67UPeaEKaZTxJWdVw7xC8940132023-10-23T00:42:17.042ZYES2023 Team PresentationsNOhttps://video.igem.org/w/iwnh9LmfbpkW6NX8RgWkdThttps://video.igem.org/lazy-static/thumbnails/57a2e78d-aaff-4488-9ab8-afde252c42c8.jpgSCUT-China: ECO-SHELLS Waste to Wealth (2023) - Team Presentation [English]**Title:** ECO-SHELLS Waste to Wealth **Description:** When people buy seafood or make seafood products, they aim to get nutrition from those eatable and savory parts, hardly paying attention to the waste like shell of shrimps and crabs. SCUT-China wants to upgrade the usage of these biomass waste. lnstead of landfill and banishing shell waste in the ocean, we aim to develop a new strand of streptomyces to valorize the waste, producing chemicals that is beneficial to human, making good use of the fermentation broth. Our goal in this project is to explore secondary metabolic pathways in the novel streptomyces, attempting new tools for applying synthetic biology in streptomyces. Meanwhile we wish to propose an innovative recycling method for shell waste, bringing wealth from waste again. Our Project has a name and a slogan: ECO-SHELLS (Eco-friendly Conversion Of Shells into Higher value End products with Long-lasting hydrolysis based on Streptomyces), waste to wealth. [Wiki](https://2022.igem.wiki/scut-china)https://static.igem.org/peertube/streaming-playlists/hls/8de8c89c-b7d0-450f-8630-df315774e5d7/aa0f5979-6c6f-4b7d-904d-a33e78a58901-master.m3u8https://video.igem.org/videos/embed/iwnh9LmfbpkW6NX8RgWkdT8460222023-10-23T00:50:19.241ZYES2023 Team PresentationsNOhttps://video.igem.org/w/djR29yyVdMKZ1Rq8fqKaFEhttps://video.igem.org/lazy-static/thumbnails/cc797bd7-585e-4f8f-ba55-cb2890ea4cf3.jpgUCSC: Toxic Algal Bloom Interference (2023) - Team Presentation [English]**Title:** Toxic Algal Bloom Interference **Description:** Harmful algal blooms (HABs) are increasing in prevalence due to warming temperatures; this threatens the utility and biodiversity of freshwater ecosystems globally. The cyanobacteria Microcystis aeruginosa secretes microcystin, a hepatotoxin that is the principal contributor to this threat. Remediation of HABs can be accomplished with synthetic biology, but efficiently transforming M. aeruginosa is difficult due to targeting of foreign DNA by restriction-modification systems. We used the Stealth program to identify underrepresented R-M motifs in the M. aeruginosa genome and developed our Chameleon project to remove motifs from CDSs via synonymous codon-optimization of a broad host range plasmid (pSPDY). The resulting change in transformation efficiency will be assessed to validate the programs. These experiments will establish a method for preparing plasmids for efficient transformation into M. aeruginosa, which we will leverage for future toxin disruption. Beyond the M. aeruginosa context, this project will provide a foundation for engineering other non-model species. [Wiki](https://2022.igem.wiki/ucsc)https://static.igem.org/peertube/streaming-playlists/hls/63cf42e4-55b0-402b-8315-676c416150f8/9223c81f-143b-4edb-923c-521006bba87f-master.m3u8https://video.igem.org/videos/embed/djR29yyVdMKZ1Rq8fqKaFE9000432023-10-23T00:58:06.387ZYES2023 Team PresentationsNOhttps://video.igem.org/w/eADwtPTbUiLcmEefSbSF5zhttps://video.igem.org/lazy-static/thumbnails/6964a6a4-92e3-4a58-a4eb-8ac4845aec47.jpgPatras-Med: Project Herophilus : breaking the barriers against pancreatic cancer. (2023) - Team P...**Title:** Project Herophilus : breaking the barriers against pancreatic cancer. **Description:** Pancreatic cancer is one of the few cancers for which survival has not substantially improved over the last 25 years. Nowadays, Chimeric Antigen Receptor Therapy (CAR Therapy) has entered clinical practice. It is characterized as living therapy and CAR Natural Killer (CAR-NK) cells as living drugs. We aim to construct CAR-NK cells derived from induced Pluripotent Stem Cells (iPSCs) through second-generation lentiviral plasmids to bind specifically to Mesothelin (MSLN), a GPI-anchored protein on the membrane of pancreatic cancer cells, inducing immune response. Targeting MSLN will be achieved by combining the CAR-NK structural units, which provide advanced cytotoxic activity, and a single chain Fragment-variable (scFv), which binds to MSLN even after its partial degradation by proteolytic enzymes. Thus, the project Herophilus aims to propose a new therapeutic approach for pancreatic cancer immunotherapy, utilizing CAR-NK cells and iPSCs derived from somatic cells of healthy donors. [Wiki](https://2022.igem.wiki/patras-med)https://static.igem.org/peertube/streaming-playlists/hls/6e1d3778-4480-4ca9-a5c8-0ed390b0c335/6a8ab7eb-7299-4751-a4bb-a779b1e014ac-master.m3u8https://video.igem.org/videos/embed/eADwtPTbUiLcmEefSbSF5z8120382023-10-23T01:05:13.628ZYES2023 Team PresentationsNOhttps://video.igem.org/w/n6jMj51PR9Hq2wjb6DLPjWhttps://video.igem.org/lazy-static/thumbnails/9c26ac85-7ee9-4862-b4bd-c679fbc4adc9.jpgNUDT-CHINA: ARROR: a PVC-Based delivery of UCP1 into adipose tissue for efficien... (2023) - Team...**Title:** ARROR: a PVC-Based delivery of UCP1 into adipose tissue for efficient body weight control **Description:** In the past 50 years, significant progress has been made in managing diseases closely linked to excess body weight. However, treating obesity itself has been challenging, with medications often providing inadequate efficacy and potential safety concerns. Here, we demonstrate a novel synthetic biology-inspired therapeutic nanomachine to reduce excess body fat by effectively delivering Uncoupling protein 1 (UCP1) into white adipose cells. Our results show that the engineered syringe-like Photorhabdus Virulence Cassette (PVC) nanoparticles could be loaded with UCP1 and effectively assembled in E. coli. The UCP1-loading PVCs could effectively inject UCP1 into mammalian cells in a target-dependent manner, which then induces an overall increase in cell metabolic rate. Our approach offers an exciting and promising way to reduce body fat, which can help prevent obesity-related diseases. [Wiki](https://2022.igem.wiki/nudt-china)https://static.igem.org/peertube/streaming-playlists/hls/aace347e-8ea3-4326-bd2d-75f5e839f7b6/708c1df9-226d-4232-84ff-f02ffc5ad3de-master.m3u8https://video.igem.org/videos/embed/n6jMj51PR9Hq2wjb6DLPjW85301372023-10-23T01:15:51.979ZYES2023 Team PresentationsNOhttps://video.igem.org/w/oYyDq1oMLt4oDsPppiEunqhttps://video.igem.org/lazy-static/thumbnails/ff8a5bcd-e1d2-4293-9856-93fc63367bb4.jpgXMU-China: Naiads (Novel anti-icing and anti-drought solutions) (2023) - Team Presentation [English]**Title:** Naiads (Novel anti-icing and anti-drought solutions) **Description:** Naiads is a Greek goddess who upholds water and safeguards our land. But recently, extreme weather has damaged soil health severely and become a major barrier to agriculture development. Unfortunately, most of the existing methods are neither convenient, efficient, nor eco-friendly. Thus, Naiads is cooperating with XMU-China to solve soil problems this year. For soil frost, the engineered bacteria are used to produce antifreeze proteins under low temperatures. For soil drought, the water-retention compounds produced by our bio-factory are used. With the two mighty tools, the normal progress of agriculture can be ensured. [Wiki](https://2022.igem.wiki/xmu-china)https://static.igem.org/peertube/streaming-playlists/hls/ba0ed1e3-7b8d-44e0-87bf-febd30c69f6a/a0545269-2fbc-4f04-b113-1d9c868c7cf6-master.m3u8https://video.igem.org/videos/embed/oYyDq1oMLt4oDsPppiEunq9000412023-10-23T01:22:18.729ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bHpTDiSXDeLNh22cn2Jqjuhttps://video.igem.org/lazy-static/thumbnails/b204856f-4769-47c1-b653-a5201142c3cf.jpgTokyoTech: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/tokyotech)https://static.igem.org/peertube/streaming-playlists/hls/56c39aa9-bcc8-4d7f-a69c-a1f5418af590/f5eb2ebc-8267-4f98-b03f-2b1e082bf051-master.m3u8https://video.igem.org/videos/embed/bHpTDiSXDeLNh22cn2Jqju7550402023-10-23T01:27:58.153ZYES2023 Team PresentationsNOhttps://video.igem.org/w/31FctHKUdhiY4Jhx9hbPMGhttps://video.igem.org/lazy-static/thumbnails/54a173b6-a4ac-4f2a-9365-d2ccea8a87a8.jpgHongKong-CUHK: Ecoture: A multi-enzymatic approach for PE-PFA mixed plastic wast... (2023) - Team...**Title:** Ecoture: A multi-enzymatic approach for PE-PFA mixed plastic waste biodegradation **Description:** Fungi have been identified to possess plastic degradation capabilities via enzymes.They are sustainable and cost-effective alternative. Given that Hong Kong's second largest municipal waste is plastics, our team aims to alleviate the burden of limited landfill space by developing a more sustainable, efficient, and cost-effective method using laccase, lignin peroxidase (LiP) and manganese peroxidase (MnP). Our method involves inserting a specific gene into optimal plasmid that facilitate production of enzymes. After increasing the efficiency of gene expression, optimal plasmid will be transformed in DH5 E.coli, incubated and secreted for subsequent downstream processes. Since we are investigating two plastic components, per- and poly-fluoroalkyl substancestu (PFA) and polyethylene (PE), degradation efficiency will be determined by measuring their activity in guaiacol oxidation under different temperature and pH. Along with these results, we will perform assay where different enzyme concentrations digest different molecular weights of the mixed waste to model the plastic degradation efficiency. [Wiki](https://2022.igem.wiki/hongkong-cuhk)https://static.igem.org/peertube/streaming-playlists/hls/104a6f12-d807-470e-bd53-f8f2d5c36146/c0ba06d2-27bb-47ff-810f-c113e75e545c-master.m3u8https://video.igem.org/videos/embed/31FctHKUdhiY4Jhx9hbPMG8590132023-10-23T01:35:35.571ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hUqw9erfrzRq3qPB4cDjj1https://video.igem.org/lazy-static/thumbnails/0c3f6015-90d6-4ca2-90cf-6a9a8524e3d6.jpgTuebingen: To build a blood type - from B to A (2023) - Team Presentation [English]**Title:** To build a blood type - from B to A **Description:** Blood donation shortages are a pressing concern for health facilities worldwide. Additionally, the availability of blood donations is further limited by the incompatibility of blood types. Among the four canonical types, only group O is universally suitable for donation due to the absence of blood antigens on the surface of red blood cells. In an attempt to address this issue and facilitate blood donations, our project aims to enzymatically convert type B blood into type A, which has successfully been converted into type 0 previously. This reaction is achieved by converting galactose as the terminal sugar of the B antigen into keto-galactose. Using molecular docking simulations with AlphaFold 2 enzyme structures, we screened monooxygenase families to identify enzymes that are potentially capable of catalyzing this conversion. Subsequently, activities of the selected enzymes were to be experimentally validated. [Wiki](https://2022.igem.wiki/tuebingen)https://static.igem.org/peertube/streaming-playlists/hls/88e40161-8b7b-4b7d-9016-63bbc9b57534/65457a9a-da3a-4d39-9394-0b950d17b3a1-master.m3u8https://video.igem.org/videos/embed/hUqw9erfrzRq3qPB4cDjj16850172023-10-23T01:40:54.302ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qeDpniRuvzY17oUcyjp23Xhttps://video.igem.org/lazy-static/thumbnails/16a3707a-6904-4eb6-a51e-d3c6b19b27f3.jpgToronto: Methanivore: a comprehensive solution to landfill gas emissions through... (2023) - Team...**Title:** Methanivore: a comprehensive solution to landfill gas emissions through bacterial metabolic engineering **Description:** Landfill gasses (LFG) account for 23% of Canada's methane emissions, a potent greenhouse gas contributing to global warming. Current methods methane combustion release excess carbon dioxide and are ecologically harmful. Our solution involves optimizing a genetically-engineered Escherichia coli strain (T-B18) which metabolizes methanol via the ribulose monophosphate pathway (RuMP). We also demonstrated a process concept where methane is separated from LFG using cellulose acetate membranes then converted into methanol by a catalytic reactor, enabling bacterial consumption. Using Genome-Scale Metabolic Models and literature research, we generated an ordered list of genetic modifications that can increase methanol assimilation, namely TpiA and frdABCD as our knock-out targets. To quantify T-B18 s methanol assimilation ability, we used HPLC to measure methanol levels in cell culture before and after modification. The engineered T-B18 strain exhibits preference towards metabolizing glucose over methanol, further tuning needed to make it a promising candidate for on-site applications at landfill sites. [Wiki](https://2022.igem.wiki/toronto)https://static.igem.org/peertube/streaming-playlists/hls/c4430c15-1c03-4ec0-b701-11f76327cf47/21930f6c-ed8b-4829-9277-654ea3ee04e9-master.m3u8https://video.igem.org/videos/embed/qeDpniRuvzY17oUcyjp23X8570662023-10-23T02:12:43.522ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8VgRWm3h7JbX6epp24ZZ93https://video.igem.org/lazy-static/thumbnails/45689216-2cbf-4fdc-b71e-9ffc047a5059.jpgGEC-CHINA: Directed evolution to elevate bio-production of NAD+ for anti-ageing (2023) - Team Pre...**Title:** Directed evolution to elevate bio-production of NAD+ for anti-ageing **Description:** As the aging population continues to grow, the treatment of aging and age-related diseases has become an important societal issue. NAD+ is a critical molecule in cellular metabolism and life span, but its levels decline with age. NAMPT is the key enzyme for NAD+ synthesis, however, the catalytic activity of human NAMPT is extremely low. Therefore, our project aims to harness the power of directed evolution to select the NAMPT mutant form with superior activity and accelerate the bio-production of NAD+ and its application in anti-aging therapy. We established the TRACE system and used the NAD+ biosensor FiNad to characterize the changes in NAMPT activity, thereby screening highly active NAMPT mutants, providing a theoretical basis for improving the NAD+ synthesis process and reducing costs. The successful implementation of this project is expected to alleviate the social burden caused by aging and age-related diseases which has significant research and application value. [Wiki](https://2022.igem.wiki/gec-china)https://static.igem.org/peertube/streaming-playlists/hls/40202a44-8061-4e6a-bced-4f7c8b8e5ace/3f6bf1cd-824d-46cc-969d-c4531dbabce4-master.m3u8https://video.igem.org/videos/embed/8VgRWm3h7JbX6epp24ZZ938990182023-10-23T03:00:07.855ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wUjb8GWj6ySDUMVN9nu5xUhttps://video.igem.org/lazy-static/thumbnails/74873cd7-523e-4fb3-87b1-d03d1fad5b8c.jpgDTU-Denmark: FluoroLoop - An Aptamer-Based PFAS Detection Method (2023) - Team Presentation [Engl...**Title:** FluoroLoop - An Aptamer-Based PFAS Detection Method **Description:** Today in Denmark, the question is not where PFAS are, but where PFAS aren't. Our project centres around this class of forever chemicals, which accumulate in the environment and our bodies with highly detrimental effects. While efforts are made to identify the extent of the contamination, detection methods are expensive and time-consuming, primarily relying on LC/MS. Our goal is to create a quick, cheap, and easy-to-use PFAS biosensor to aid detection. To do so we use an aptamer specific for one of the most well-known PFAS, namely PFOA. We combine the aptamer with a trans-encoded genetic switch, known as a tRNA mimicking structure (TMS), which is novel to iGEM. Furthermore, we have developed the software tool AptaLoop, to aid future researchers in streamlining aptamer design and modelling. [Wiki](https://2022.igem.wiki/dtu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/fa400951-7621-4e16-85d6-cd571cd0dc7a/9c692792-a6b1-4a02-937b-f0b2ce84eb81-master.m3u8https://video.igem.org/videos/embed/wUjb8GWj6ySDUMVN9nu5xU7550742023-10-23T03:05:48.645ZYES2023 Team PresentationsNOhttps://video.igem.org/w/enSsZGZXUBQyEWq7iApUakhttps://video.igem.org/lazy-static/thumbnails/ef019560-ca3d-4b2e-9fb0-cabea9d50200.jpgGU-Frankfurt: B.L.I.S.S. - Beta Lactam Intelligent Sensing System (2023) - Team Presentation [Eng...**Title:** B.L.I.S.S. - Beta Lactam Intelligent Sensing System **Description:** Antibiotic resistance is on track to become one of the most substantial threats to humanity in the forthcoming years, estimated to cost 10 million lives each year by 2050. A major catalyst for this acceleration is the accumulation of antibiotics in wastewater, where bacteria can rapidly acquire resistance. In Germany and many other countries, there are no existing guidelines for the monitoring of antibiotic pollution in wastewater. Therefore, we want to provide an easy-to-use detection system that can be evaluated by anyone without specialized equipment, by a simple colour change. Our biosensor is based on the two-component systems VbrK/VbrR from Vibrio parahaemolyticus and BlaR1/BlaI from Staphylococcus aureus. Additionally, we provide two robust and reliable detection systems: a paper strip where the whole-cell biosensors are freeze-dried and alginate nanofibers which encapsulate the biosensor. In addition, we worked on increasing specificity by performing in silico docking experiments [Wiki](https://2022.igem.wiki/gu-frankfurt)https://static.igem.org/peertube/streaming-playlists/hls/6c5485ad-568c-4480-8f44-99c575259645/8cfa5a71-5337-4b56-ac04-ee3fd73f6727-master.m3u8https://video.igem.org/videos/embed/enSsZGZXUBQyEWq7iApUak9000492023-10-23T01:49:56.775ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uWF6sot3yVdiJpn3tsvRZ1https://video.igem.org/lazy-static/thumbnails/27ad34b1-36cc-4375-8599-03ecd93d2427.jpgHKGTC: QSMiD: Quorum Sensing system for Microplastics Detection (2023) - Team Presentation [English]**Title:** QSMiD: Quorum Sensing system for Microplastics Detection **Description:** Microplastics are one of the most damaging and lasting legacies emerged from plastic pollution. Identification of microplastics in complex environmental matrices remains a challenge. In this study, we engineered a whole-cell biosensor based on the LasI-LasR quorum sensing system to detect and quantitatively measure the presence of quorum sensing molecules, N-acyl-homoserine lactones (AHL) molecules secreted from P. aeruginosa for the detection of microplastic pollution levels in water samples. The engineered whole-cell biosensor had a strong GFP expression within 3 hours in the presence of AHL molecules, 3OC -HSL and C HSL as low as 1x10 M. In addition, the engineered biosensor had a high sensitivity in response to 3OC -HSL with an EC value of 2.823 x 10 M. The engineered biosensor has potential applications to provide a rapid, sensitive and quantitative detection of the microplastic pollution levels in environmental samples. [Wiki](https://2022.igem.wiki/hkgtc)https://static.igem.org/peertube/streaming-playlists/hls/ea62237c-e6e5-461f-bf45-57517b63fad6/49ff3976-9577-4022-9263-897d052c5f60-master.m3u8https://video.igem.org/videos/embed/uWF6sot3yVdiJpn3tsvRZ18230382023-10-23T02:35:19.326ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2bSpWEWderuzGLoegwBiLBhttps://video.igem.org/lazy-static/thumbnails/00c537ed-4cc1-472e-b7a4-789be3cee672.jpgLatvia-Riga: Full Circle: Advancing Cyclic Peptide production using BURP Domain ... (2023) - Team...**Title:** Full Circle: Advancing Cyclic Peptide production using BURP Domain proteins **Description:** BURP domains are a class of plant proteins that catalyze the cyclization of small peptide motifs, that have a potential to generate cyclic peptide therapeutics, antimicrobials and insecticides. Our goal is to produce functional recombinant BURP domain proteins in order to perform cyclisation of diverse (natural, engineered) peptide substrates. This would demonstrate a useful platform for realising the bioactive potential of cyclic peptides. During our project we aimed to create a library of custom vectors for our BURP protein expression using the Freegenes E. coli Protein Expression Toolkit. In parallel, we optimized BURP domain protein expression and purification strategies using pXP vector series among other protocols and achieved successful cyclization of peptides. Throughout our project, we used conversations with experts from different fields and the public to guide our work. We also developed a board game and a simulation game to educate the next generations and future iGEM teams. [Wiki](https://2022.igem.wiki/latvia-riga)https://static.igem.org/peertube/streaming-playlists/hls/099da4f4-6361-4fad-8494-5c9aa7391177/233a3e19-9125-41a5-9b16-3e811a2443fd-master.m3u8https://video.igem.org/videos/embed/2bSpWEWderuzGLoegwBiLB9000432023-10-23T03:23:05.871ZYES2023 Team PresentationsNOhttps://video.igem.org/w/3ewH9syX4VYn2Y9PfszmWihttps://video.igem.org/lazy-static/thumbnails/28666be9-755c-4e06-a81d-bb576a6e9beb.jpgLINKS-China: Aroma Anchor (2023) - Team Presentation [English]**Title:** Aroma Anchor **Description:** Ambergris and Sandalwood Oil are both well-known fragrance fixatives since centuries before. However, people hunted and killed sperm whales to obtain ambergris and the growing of sandalwood is highly time and cost consuming. LINKS-China 2023 aims to produce ambrein and santalol, the major components of the fixatives using yeast cell-factory. By engineering S.cerevisiae, we optimized the MVA pathways by over expressing tHMG1 and IDI1. Then, we constructed the pathway of santalene production by expressing ClSS and its mutant. After that, we inserted CYP736A167 and SaCPR2 to convert santalene into santalol. We also constructed a pathway producing ambrein by inserting two different integrations. In the end the yeasts are able to produce 24.23 mg/L of santalene and 40.65 mg/L of santalol, and we have found the most suitable integration for ambrein production. We wrote market analysis to plan the future development of our project. We expect that in the future, LINKS-China will be able to provide society with an economical and high-quality fragrance fixatives. [Wiki](https://2022.igem.wiki/links-china)https://static.igem.org/peertube/streaming-playlists/hls/1215df26-3694-4243-990b-de33cab60465/2b59e655-85bb-4dc0-8b5a-023f6c20e456-master.m3u8https://video.igem.org/videos/embed/3ewH9syX4VYn2Y9PfszmWi8320832023-10-23T04:25:20.870ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hKTT6ZNvTUjoQAtdi9rT3Qhttps://video.igem.org/lazy-static/thumbnails/8aad4b13-d0d3-4d3f-b8ee-310efcc889b2.jpgSquirrel-Shanghai: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/squirrel-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/87b32c6c-6b5e-4879-9351-676db45f5558/44cd56be-bae8-4456-915b-3b578774f866-master.m3u8https://video.igem.org/videos/embed/hKTT6ZNvTUjoQAtdi9rT3Q5600152023-10-23T04:44:20.540ZYES2023 Team PresentationsNOhttps://video.igem.org/w/kAKHJdKMSf7U5cHoRcXV1khttps://video.igem.org/lazy-static/thumbnails/211f0f77-c557-4965-ae12-980b99885d6d.jpgLethbridgeHS: ChromoSense (2023) - Team Presentation [English]**Title:** ChromoSense **Description:** Our team is redesigning a chromoprotein to a biosensor platform. The colour-changing chromoprotein switches colours upon binding to a target ligand. The biosensor design is based on work done by Stewart Loh's lab and the 2013 Uppsala iGEM team. The designed biosensor has the potential to detect a variety of ligands, our focus is on creating a biosensor to detect one of the most serious health problems of captive marine fish. Velvet disease is caused by Amyloodinium dinoflagellate parasites. The parasite enters the slime coat of a host fish and damages the host's cells. Fish farmers and pet owners would benefit from having a rapid test that is able to detect parasite levels early. The biosensor will be engineered to change colour upon binding to a target protein produced by the parasite. The user-friendly lateral flow assay will not require any specialized equipment and have a long shelf life. [Wiki](https://2022.igem.wiki/lethbridgehs)https://static.igem.org/peertube/streaming-playlists/hls/9eb7dda4-2c86-4da3-9315-5853c739b56f/d22e7e6b-d6fa-4b28-a753-8e11cf522218-master.m3u8https://video.igem.org/videos/embed/kAKHJdKMSf7U5cHoRcXV1k8840142023-10-23T04:32:11.058ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ufQigRgL8SazewAbUZE2qZhttps://video.igem.org/lazy-static/thumbnails/acf642bd-80b8-45f7-bdc0-850c84a7d11f.jpgNEU-CHINA: Functional biofilms applied in metal corrosion protection (2023) - Team Presentation [...**Title:** Functional biofilms applied in metal corrosion protection **Description:** In metal corrosion protection, biofilm can play a role in metal corrosion protection by removing corrosive cathode medium (such as oxygen), inhibiting the growth of corrosive microorganisms, and forming a protective layer on the metal surface. However, one of the shortcomings of biofilm for metal corrosion protection is its weak metal adhesion ability. NEU-CHINA team aimed to design a living functional biofilm that can be applied to marine metal corrosion protection. We named it BMCP (Biofilm for metal corrosion prevention). In this project, Escherichia coli amyloid protein CsgA and mussel foot silk protein Mfp were connected by in vitro assembly, aiming at improving the adhesion ability of the biofilm on the surface of metal materials, so as to play the role of corrosion protection better. Finally, we will achieve long-term metal corrosion protection and improve the biological safety of BMCP through biomineralization. [Wiki](https://2022.igem.wiki/neu-china)https://static.igem.org/peertube/streaming-playlists/hls/e4d20f52-0c88-483b-86af-109deaa8614d/e4496d62-e275-47f8-bbd3-57bf94a674b7-master.m3u8https://video.igem.org/videos/embed/ufQigRgL8SazewAbUZE2qZ8980142023-10-23T04:39:46.049ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fsnedPdw3g9ZHueXmjA7nfhttps://video.igem.org/lazy-static/thumbnails/44971dee-e8ce-413b-9192-313ee5541785.jpgNU-Kazakhstan: Living bacteria-mediated carcinoma tumor therapy (2023) - Team Presentation [English]**Title:** Living bacteria-mediated carcinoma tumor therapy **Description:** Cancer remains one of the deadliest diseases in the world despite the advances in current diagnosis and treatments. Current challenges in onco-therapy include targeting, specificity, and side effects. With that in mind, we are focused on applying synthetic biology to develop a live bacteria-based antitumor therapeutic vaccine delivered in situ to solid carcinomas by a thermosensitive hydrogel. We will use a non-pathogenic strain of E.coli BL21 (DE3) to produce a native to the bacteria pore-forming toxin, Colicin E1, expressed in response to a high lactate presence in the tumor microenvironment. To prevent a harsh immune reaction, we encapsulate bacteria into a chitosan-based thermosensitive and biodegradable hydrogel, solidifying in situ upon injection. As a result of the project, a smart, localized, and controlled therapeutic vaccine will be developed to be injected once and ensure sustainable drug release for a determined period. [Wiki](https://2022.igem.wiki/nu-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/750e5c87-cb85-47d9-bf36-32c1dccc62d8/1a627987-7541-413f-b089-e06c6d8559c8-master.m3u8https://video.igem.org/videos/embed/fsnedPdw3g9ZHueXmjA7nf5490192023-10-23T05:20:22.306ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mMfLDnr1HtLaSgsGnv5UQehttps://video.igem.org/lazy-static/thumbnails/07283fbb-c8fb-4158-a4dc-7bddab411950.jpgEvry-Paris-Saclay: OptoGenEYEsis (2023) - Team Presentation [English]**Title:** OptoGenEYEsis **Description:** Imagine a world without sight - a harsh reality for many. The retina, a specialized tissue at the back of the eye, houses photoreceptor cells, each containing opsin molecules that respond to light, a crucial element in vision. The loss of these cells leads to the depletion of opsins, resulting in blindness. OptoGenEYEsis is a pioneering tool that leverages light-sensitive microbial opsins for genetic therapy. Our aim is to rejuvenate the retina's light-sensing abilities and restore vision. Unlike other microbial opsin-based treatments which suffer from narrow absorption spectra, suboptimal sensitivity, and limited efficiency in converting light into nervous electrical signals, our approach uses synthetic biology and microfluidics-based directed evolution for enhanced opsins. This innovative approach promises improved light absorption, heightened sensitivity, and efficient conversion of light into electrical signals for visual processing. It's more than just a solution; it's a game-changer in the fight against blindness. [Wiki](https://2022.igem.wiki/evry-paris-saclay)https://static.igem.org/peertube/streaming-playlists/hls/a8485853-286b-4c1c-a0e8-075b5a9aa1cd/d7756a81-c832-4171-a3f3-61de5aebb708-master.m3u8https://video.igem.org/videos/embed/mMfLDnr1HtLaSgsGnv5UQe90001302023-10-23T05:26:00.307ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bCx5GKUfSav1WVr5VcT5RKhttps://video.igem.org/lazy-static/thumbnails/7f19b672-5c51-45f9-8bd8-cc19b3ce6fd6.jpgPennState: SensoREX: Riboswitch-Enabled eXpression (2023) - Team Presentation [English]**Title:** SensoREX: Riboswitch-Enabled eXpression **Description:** Waiting for diagnostic test results can be an anxious and lengthy process, often taking several days or even weeks; however, the Penn State iGEM team has implemented a more efficient method of analysis with SensoREX! SensoREX utilizes Riboswitched-Enabled eXpression in cell-free systems to measure biomarker concentrations. This quicker, cheaper, and modular in vitro diagnostic could easily be designed to identify a variety of disease-indicating proteins and small molecules. The addition of a blood sample to a test tube containing our plasmid and master mix could produce a measurable level of glucose that would correspond to the concentration of biomarker in the sample. SensoREX aims to make point-of-care diagnostics less stressful and more accessible. [Wiki](https://2022.igem.wiki/pennstate)https://static.igem.org/peertube/streaming-playlists/hls/56155114-5877-4a4a-971d-3dbe7e18c81d/800d51b8-458a-4c68-84ee-f45a3f577b75-master.m3u8https://video.igem.org/videos/embed/bCx5GKUfSav1WVr5VcT5RK776092023-10-23T05:15:04.974ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pLS2MVpkBoWMhKSLoBfTvmhttps://video.igem.org/lazy-static/thumbnails/c454707a-6407-402b-b8ff-932fc0e65066.jpgiZJU-China: Eco-Art: A solution for pungent odors degradation in oil painting ba... (2023) - Team...**Title:** Eco-Art: A solution for pungent odors degradation in oil painting based on engineering bacteria. **Description:** Turpentine is a commonly used thinner in oil painting, which can modify the viscosity of oil painting pigments. However, its pungent odors, mainly caused by alpha-pinene, poses a threat to the health of oil painting practitioners. Our project hopes to construct engineering bacteria to degrade alpha-pinene, the main component of turpentine. The degradation process includes two parts: an improved alpha-pinene oxidation system and an alpha-pinene oxide lyses system. Firstly, exogenous alpha-pinene monooxygenase was introduced into E. coli to facilitate the oxidation of alpha-pinene into alpha-pinene oxidate. Then, alpha-pinene oxidate can be converted into isonovalal by E. coli introduced with alpha-pinene oxide lyase. We intend to apply our engineering bacteria to the real world. Therefore, a product in the form of biological air purifier was designed. We hope that our engineering bacteria can solve the problem of turpentine's pungent odors and provide an environmentally friendly future for oil painting. [Wiki](https://2022.igem.wiki/izju-china)https://static.igem.org/peertube/streaming-playlists/hls/c085bf68-c5be-46d0-a702-b130b2c8e6f2/0f78342b-96ba-443b-b310-6bd8f551646f-master.m3u8https://video.igem.org/videos/embed/pLS2MVpkBoWMhKSLoBfTvm7960192023-10-23T05:32:59.042ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cZRjW8Ndantmu8iekUHcRLhttps://video.igem.org/lazy-static/thumbnails/1a77a7c6-f10b-41fc-8cfa-a67a53d568da.jpgISPanama: Detection of Fosarium Oxysporum through quorom sensing of Rhizobium le... (2023) - Team...**Title:** Detection of Fosarium Oxysporum through quorom sensing of Rhizobium leguminosarum using E.coli as a model **Description:** Panama is a significant banana producer in Latin America, yielding approximately 2.5 million tons annually, contributing about $200 million to Panama's economy. Currently, there are no ultimate solutions to manage the spread of Fusarium oxysporum, an asexual-reproducing fungal pathogen that can remain in soil, tissue, and organic residues asymptomatically in an endophyte form. Our project addresses the issue of the Panama wilt disease. Caused by the Fusarium oxysporum pathogenic fungus, it clogs the plant's xylem vessels, leading to water and nutrient deprivation, defoliation, and plant death. Our solution involves genetically modifying bacteria for early detection of F. oxysporum. A genetic circuit with a fusaric acid inducible promoter is activated by fusaric acid produced by the fungus. Upon detection, bacteria produces AHL through LuxI protein to communicate via quorum sensing. Other bacteria were modified to form complex with the AHL and produce more AHL through the LuxI/LuxR complex. [Wiki](https://2022.igem.wiki/ispanama)https://static.igem.org/peertube/streaming-playlists/hls/61285192-d677-4d13-93ba-f240ca8fc91a/36933d05-92ef-412e-82db-5fbb57a541c1-master.m3u8https://video.igem.org/videos/embed/cZRjW8Ndantmu8iekUHcRL8200132023-10-23T05:41:22.533ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rPXvehPQLeNfSGxparpZ1Phttps://video.igem.org/lazy-static/thumbnails/b2ab7694-d887-430e-b504-9cf12d928606.jpgGeorgiaState-SWJTU: Bio-Barbie: Co-culturing C. reinhardtii and E. coli for PHB ... (2023) - Team...**Title:** Bio-Barbie: Co-culturing C. reinhardtii and E. coli for PHB Production **Description:** As evidenced by climate change and plastic pollution, it has become increasingly necessary to develop an alternative to fossil-fuel based production, such as biologically-based production. Our project's aim is to create a polyhydroxybutyrate (PHB) production platform based on a co-culture between C. reinhardtii and E. coli. Such a co-culture has been shown to nearly double the growth of C. reinhardtii. Despite being in co-culture, PHB production in C. reinhardtii is limited by several conditions: 1) it is produced in small amounts, 2) it is only produced under stress, and 3) it is limited by acetyl-CoA availability. To counter these restraints, we propose modifying C. reinhardtii to express three genes to increase PHB production. In addition, we propose modifying E. coli to produce ethanol, a stress factor that will increase PHB in C. reinhardtii. Finally, we propose inactivating the ackA-pta pathway in E. coli to indirectly increase acetyl-CoA availability. [Wiki](https://2022.igem.wiki/georgiastate-swjtu)https://static.igem.org/peertube/streaming-playlists/hls/d126a114-3678-40f2-93ae-9c8d7e47393b/695f4a72-3562-40e6-9128-a598cf1b614e-master.m3u8https://video.igem.org/videos/embed/rPXvehPQLeNfSGxparpZ1P7000782023-10-23T05:47:17.204ZYES2023 Team PresentationsNOhttps://video.igem.org/w/sSzxAD6TDaXQPbSqDip6Duhttps://video.igem.org/lazy-static/thumbnails/64d65b0e-33c0-4492-adfd-da9e365ccfac.jpgTongji-China: Plink A High-precision Quantitative Detection System Based on High... (2023) - Team...**Title:** Plink A High-precision Quantitative Detection System Based on High Conductivity Pilus **Description:** This year, Tongji-China aims to pioneer a fast, simple, economical, sensitive, and portable real-time quantitative antibody detection system. Our project is inspired by a unique biomaterial: Electrically conductive pili (e-pili) derived from G. metallireducdens. This pili is currently the most conductive biomaterial discovered by humans, and its conductivity is highly sensitive to changes in surface charge distribution. We have analyzed the structure of this protein and performed innovative epitope tagging modifications on the pili, enabling the specific binding of the target substance to the pili's surface, thereby affecting the pili's conductivity. By detecting changes in conductivity, we achieve real-time quantitative detection of antibodies. [Wiki](https://2022.igem.wiki/tongji-china)https://static.igem.org/peertube/streaming-playlists/hls/d99d7763-afef-4a07-ba50-3e4b303cdcfa/1a80fe62-077e-4155-83db-e29ebcce9d82-master.m3u8https://video.igem.org/videos/embed/sSzxAD6TDaXQPbSqDip6Du8340212023-10-23T05:53:27.978ZYES2023 Team PresentationsNOhttps://video.igem.org/w/c9FNnrozgZ6kQ8APj6QL98https://video.igem.org/lazy-static/thumbnails/35c6937a-a6cb-4449-9b0b-2567702bba81.jpgLambert-GA: CADlock: Improvement Upon an Early Screening Tool for Coronary Arter... (2023) - Team...**Title:** CADlock: Improvement Upon an Early Screening Tool for Coronary Artery Disease **Description:** In 2021, coronary artery disease (CAD) was responsible for 375,476 fatalities. Many of these deaths could be prevented by improved diagnosis, cost-effectiveness, and less invasive procedures. Through CADlock, we promoted early diagnostics and inclusive care for underrepresented demographics. We met this goal by emphasizing accessibility, affordability, and accuracy through procedures providing preliminary care to systemically marginalized groups before disease progression. By adding a nicking endonuclease, we enhanced rolling circle amplification (RCA) into exponential RCA, improving reaction accuracy. Additionally, we improved Micro-Q by utilizing a white LED to test various fluorescence wavelengths in a single frugal device. To further accommodate the accessibility of miRNA research, we created CADmir: a comprehensive search engine utilizing large language models to organize miRNA information. Finally, we educated our peers and teachers on the applications of biotechnology, inspiring future generations to make healthy, proactive lifestyle choices. [Wiki](https://2022.igem.wiki/lambert-ga)https://static.igem.org/peertube/streaming-playlists/hls/5a4b00b2-2944-4b71-9462-b6b2225b67d7/75b4fa6f-2e76-478c-9e9b-bedfa271f332-master.m3u8https://video.igem.org/videos/embed/c9FNnrozgZ6kQ8APj6QL9886301042023-10-23T06:01:31.820ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7YxQjif24x329WmwTmNVWzhttps://video.igem.org/lazy-static/thumbnails/0960edc0-7dc9-473b-b8cd-39a281dfbca0.jpgExeter: CathExe - Preventing biofilm formation on urinary catheters. (2023) - Team Presentation [...**Title:** CathExe - Preventing biofilm formation on urinary catheters. **Description:** In the National Health Service (NHS) 1 in 5 hospital patients are catheterised, with this increasing to 70% in critical care units. Catheter usage is the predominant risk factor for 70-80% of urinary tract infections (UTIs) - these are referred to as catheter-associated UTIs (CAUTIs). A key part of biofilm formation are quorum sensing systems (QS), this is the system of bacterial communication, allowing aggregation and further development of a biofilm. Our project focuses on preventing biofilms forming on catheters by targeting quorum sensing systems, including the Autoinducer 2 system (AI-2), and acyl homoserine lactones (AHL). [Wiki](https://2022.igem.wiki/exeter)https://static.igem.org/peertube/streaming-playlists/hls/387c19d3-31e7-41dc-821e-5b5daa7083a1/02388087-2538-40ba-9fe8-4c628616029c-master.m3u8https://video.igem.org/videos/embed/7YxQjif24x329WmwTmNVWz8860312023-10-23T06:40:47.387ZYES2023 Team PresentationsNOhttps://video.igem.org/w/t9aZEHmoBYVPKE2eJKcy2Khttps://video.igem.org/lazy-static/thumbnails/42cdd1ce-4924-4b39-adbd-adb0efbe40c3.jpgBangkok-NMH: Personalized Neoantigen Prediction Algorithm for DC Vaccine Cancer ... (2023) - Team...**Title:** Personalized Neoantigen Prediction Algorithm for DC Vaccine Cancer Treatment **Description:** Our collaborative project with Chulalongkorn University Hospital addresses the challenge of identifying DNA sequences for T-cells and neoantigens in dendritic cell (DC) vaccine development. Our workflow, guided by Sprint Planning, encompasses patient sample analysis, sequence alignment, HLA typing, and variant calling for tumor-specific peptides. Our product consists of using FastAPI, Mongo Atlas, and React through Amazon Web Service (AWS) deployment. Despite initial hardware and web application development challenges, such problems were ultimately resolved through AWS EC2 integration. We have reached a pivotal stage, having downloaded an example file from the NextNEOpi website to understand overall program functionality. Although not deployable for patient use yet, our focus is on refining the software for real patient applications, aligning with our goal to create a comprehensive system. This initiative aims to contribute to a more efficient cancer treatment landscape by combining bioinformatics and software engineering expertise. [Wiki](https://2022.igem.wiki/bangkok-nmh)https://static.igem.org/peertube/streaming-playlists/hls/dbcada69-0b8a-422d-933d-74aa6cde864d/25e34afc-5c1d-4007-8ef7-e979d020e664-master.m3u8https://video.igem.org/videos/embed/t9aZEHmoBYVPKE2eJKcy2K7000152023-10-23T07:07:47.717ZYES2023 Team PresentationsNOhttps://video.igem.org/w/aYSdMueLXz9zcQpsx6WYoqhttps://video.igem.org/lazy-static/thumbnails/f325db87-ca2c-4001-b063-65713dc229f5.jpgHUST-China: ElectricO Sisters A Solar Microbial Fuel Cells System (2023) - Team Presentation [Eng...**Title:** ElectricO Sisters A Solar Microbial Fuel Cells System **Description:** Global warming and the greenhouse effect have emerged as critical and urgent climate crises. One of the key drivers of those issues is the emission of CO2. Among the various contributing factors, the excessive combustion of fossil fuels in industrial facilities stands out as a primary source of CO2 emissions, accounting for approximately one third of the total, which directs our attention to thermal power plants. To relieve the current situation, we HUST-China propose a new strategy. Our approach involves the collaboration between engineered cyanobacteria and Shewanella to concurrently capture CO2 and produce electricity, with the ultimate goal of reducing CO2 emissions and diminishing the need for fossil fuel combustion. [Wiki](https://2022.igem.wiki/hust-china)https://static.igem.org/peertube/streaming-playlists/hls/50d2d936-ca0b-4095-be26-618997a67f14/a10ee8ee-4933-4344-9624-807473cd2192-master.m3u8https://video.igem.org/videos/embed/aYSdMueLXz9zcQpsx6WYoq899017712023-10-23T07:15:35.714ZYES2023 Team PresentationsNOhttps://video.igem.org/w/9jXFPwRkRbpsetLL4gcMphhttps://video.igem.org/lazy-static/thumbnails/e56ec989-43fe-4f43-9fb6-e68fc09dd331.jpgWLC-Milwaukee: The Dirt Detective: A bioavailable phosphorus sensor powered by E... (2023) - Team...**Title:** The Dirt Detective: A bioavailable phosphorus sensor powered by E. coli **Description:** Agriculture is one of the biggest industries in Wisconsin, where our team is based, and the crops produced here go all over the world. One important component in agricultural success is soil composition. It is essential to have the appropriate nutrients in the soil for crops to grow and provide a maximal return. Our team has engineered Escherichia coli to sense bioavailable phosphate in soil and provide a colorimetric readout of concentration. Our goal is to be able to measure the concentration of phosphate using nutrient-specific promoters controlling the expression of Beta-lactamase. Beta-lactamase cleaves nitrocefin which causes a color change. We aim to provide laboratory service for agriculturists that is cheaper and has the ability to detect bioavailable phosphate in soil to aid in proper soil fertilization. [Wiki](https://2022.igem.wiki/wlc-milwaukee)https://static.igem.org/peertube/streaming-playlists/hls/436ed0b0-65ae-484b-98cb-725026faa722/14d4f73a-b256-45e2-8856-7f3354ada8a3-master.m3u8https://video.igem.org/videos/embed/9jXFPwRkRbpsetLL4gcMph900082023-10-23T07:22:55.891ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qEk2DXXHvABZL4NaSpUMzHhttps://video.igem.org/lazy-static/thumbnails/2f593625-b2fc-43ef-9e8f-9a1370112a40.jpgHopkins: Synthesis of Caddisfly Fibroin Proteins: Using Prokaryotic Cells for Ma... (2023) - Team...**Title:** Synthesis of Caddisfly Fibroin Proteins: Using Prokaryotic Cells for Manufacturing Scale-Up **Description:** Silk production is a highly labor-intensive process, with additional human ethics complications in predominately lower-income regions. We propose an alternative process of silk production through the synthesis of heavy and light chain silk fibroin proteins using expression in prokaryotic cells. This process could then be scaled for mass production with bioreactors. Caddisfly silk fibroin was studied in this project due to its unique underwater adhesive properties and thermal resistance. [Wiki](https://2022.igem.wiki/hopkins)https://static.igem.org/peertube/streaming-playlists/hls/c7b5515e-5da9-465f-a8ac-27d6ef0fff07/f7263221-9e5d-4900-9158-b56bc46c943a-master.m3u8https://video.igem.org/videos/embed/qEk2DXXHvABZL4NaSpUMzH9000362023-10-23T07:30:42.048ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hNA6SeYvMK5kNcDwZs4WMyhttps://video.igem.org/lazy-static/thumbnails/109cd7fb-ba25-4672-9065-bfd220ad6e96.jpgUNILausanne: Plasticbusters: A biofilm that captures microplastics (2023) - Team Presentation [En...**Title:** Plasticbusters: A biofilm that captures microplastics **Description:** Microplastic pollution represents a global threat to ecosystems and human health. Currently, there is no existing solution to efficiently remove microplastics from water bodies. To address this issue, we decided to engineer an Escherichia coli biofilm capable of preventing plastic particles from reaching water bodies. We demonstrated that we can overexpress Curli fibers, the main protein component of E. coli biofilms. We then went on to successfully show that our biofilm can capture microplastics. After discussing with various experts, we further developed the project in two areas: First, we added peptides to the Curli fibers which target the plastic polymers most frequently found in the environment. Secondly, we added a rubber-binding domain to the Curli fibers, which allows us to specifically capture particles originating from car tyres. Our engineered biofilm, functionalized to capture microplastics, could be implemented at multiple levels, including wastewater treatment plants, road drains, and washing machine filters. [Wiki](https://2022.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/88137292-f931-400a-93dc-075a6d3d15a2/8625dd0e-c75c-4d54-bc89-daf32aca8ea4-master.m3u8https://video.igem.org/videos/embed/hNA6SeYvMK5kNcDwZs4WMy8450602023-10-23T07:38:51.588ZYES2023 Team PresentationsNOhttps://video.igem.org/w/3mAc22uTkSXa38CLd9hatihttps://video.igem.org/lazy-static/thumbnails/1d8737ad-f259-4b71-bdba-6a7bce15aa59.jpgICT-Mumbai: Reducing phytate content in legumes and millets using engineered bak... (2023) - Team...**Title:** Reducing phytate content in legumes and millets using engineered baker's yeast **Description:** Phytate is an antinutritional factor found in legumes and millets. While these are staple food items in many regions of the world, there is a need to decrease phytate content to enhance their nutritional value. Treatment of the flour with phytase enzyme is an option, but it increases the cost and a unit operation. We have therefore engineered baker's yeast, Saccharomyces cerevisiae, to express phytases. The engineered yeast can be used to ferment legume and millet flour, while also decreasing the phytate content. [Wiki](https://2022.igem.wiki/ict-mumbai)https://static.igem.org/peertube/streaming-playlists/hls/13123918-9849-45a9-9f5d-5416bb6c0ef3/2a25e9ab-8782-4917-a879-006c0e433e20-master.m3u8https://video.igem.org/videos/embed/3mAc22uTkSXa38CLd9hati9000162023-10-23T10:06:45.077ZYES2023 Team PresentationsNOhttps://video.igem.org/w/j2KEYMvCafyDFqZc43ittQhttps://video.igem.org/lazy-static/thumbnails/4a7719c8-11ca-4c23-a3c1-93f543c008b8.jpgSUSTech-OCE: Air BioClean System (2023) - Team Presentation [English]**Title:** Air BioClean System **Description:** Indoor air pollution is a significant global health concern. To tackle this issue, our team utilized a microbial co-culture system and gene editing techniques to modify Escherichia coli strains. These modified E.coli strains can absorb and eliminate common indoor pollutants, such as formaldehyde, and also hydrogen sulfide. Moreover, they can produce distinct fluorescent signals to indicate the presence of pollutant concentrations that surpass safety standards. The co-culture system also incorporates cyanobacteria, which perform photosynthesis to absorb carbon dioxide and release oxygen, thus regulating indoor carbon dioxide levels. The energy and carbon sources provided by the cyanobacteria sustain the growth and function of the E. coli strains. Our project aims to offer an environmentally friendly and sustainable approach to controlling indoor air pollution. [Wiki](https://2022.igem.wiki/sustech-oce)https://static.igem.org/peertube/streaming-playlists/hls/9203274c-5433-445b-8410-ad85fd01fe02/ba1e00e0-d8e4-4fc3-82ea-4a14f27eb485-master.m3u8https://video.igem.org/videos/embed/j2KEYMvCafyDFqZc43ittQ8990192023-10-23T10:15:28.965ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wJjzeiLV4iSJda7aSvuVBehttps://video.igem.org/lazy-static/thumbnails/9917ffa4-2801-4116-9345-4421ebf55f10.jpgUSTC-Software: Prot-DAP,an integrated platform for all steps of protein sequence... (2023) - Team...**Title:** Prot-DAP,an integrated platform for all steps of protein sequence design **Description:** To address the challenges such as cumbersome platform switches and interactive difficulties encountered in the protein sequence design, we have developed Prot-DAP, an integrated protein sequence design assistance platform. It incorporates commonly used protein sequence design tools, allowing users to import sequences of interest from Uniprot, filter homologous proteins for multiple sequence alignment (MSA), score mutations at specific sites using predictive models, and proceed to downstream codon optimization and primer design, providing a comprehensive design pipeline. We believe that this platform can enhance the efficiency of design personnel and contribute to teaching in relevant academic disciplines. [Wiki](https://2022.igem.wiki/ustc-software)https://static.igem.org/peertube/streaming-playlists/hls/f8dad817-864a-4a94-91f1-3450479ad11f/0b20f0b7-8d4c-4b7f-be7d-4bc34e1a3a76-master.m3u8https://video.igem.org/videos/embed/wJjzeiLV4iSJda7aSvuVBe8380162023-10-23T10:21:07.315ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1ziTihRvaondbkyquAkUeKhttps://video.igem.org/lazy-static/thumbnails/39f41be9-11be-40f4-b327-e6cfac50f109.jpgUBC-Okanagan: ImmuniBee (2023) - Team Presentation [English]**Title:** ImmuniBee **Description:** The global bee population decline is critical, harming agriculture and the environment. Honeybees, the most widely distributed bee, are also affected. The presence of Deformed Wing Virus is a major contributor, causing deformities and leading to Colony-Collapse-Disorder. Not only causing losses for beekeepers, but honeybee infections also pose a threat to native bees and pollinators as reservoirs and carriers of disease. Our goal is to develop the world's first treatment for bee viruses leveraging our understanding of bee immune systems and synthetic biology. We will express the DWV capsid protein VP3 on the surface of Bacillus subtilis cells by fusing it to spore proteins on vegetative cells to explore bee immune responses through Trans-Generational Immune Priming and potentially develop a vaccination system against viruses. This has the potential to make a significant impact on the protection and well-being of bees, preserve ecosystems, and enhance global food security. [Wiki](https://2022.igem.wiki/ubc-okanagan)https://static.igem.org/peertube/streaming-playlists/hls/04a690eb-8a43-42e1-8f8c-2947b7d56e05/f9bde2e9-a2c5-4d39-bfad-7e39c38c97af-master.m3u8https://video.igem.org/videos/embed/1ziTihRvaondbkyquAkUeK8230452023-10-23T10:37:15.029ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4k4YDrarKXswVKkF16Cskihttps://video.igem.org/lazy-static/thumbnails/02358b17-fd03-4b8c-b1c1-8bf4a04cd6a6.jpgTsukuba: AMINO SHIP (2023) - Team Presentation [English]**Title:** AMINO SHIP **Description:** Japan is surrounded by the sea, and most of its trade is dependent on marine transportation. The problem of marine biofouling has become an issue in this maritime transportation. Marine biofouling causes increased vessel weight and increased resistance to water currents as it adheres to vessel surfaces. This directly leads to increased fuel consumption, which in turn causes global warming, air pollution, and economic problems. On the other hand, the chemicals that have been used so far to deter the attachment of attached organisms have a negative impact on marine ecosystems. By the way, some marine organisms are known to produce substances that inhibit the attachment of attached organisms. These substances are considered environmentally friendly because they are naturally occurring. Therefore, we, iGEM Tsukuba, aim to solve the complex environmental problems caused by the attached organisms by using synthetic biology to mass-produce these substances in E. coli. [Wiki](https://2022.igem.wiki/tsukuba)https://static.igem.org/peertube/streaming-playlists/hls/1af4ff90-e2c2-42c5-a9c0-a57b3aa60937/cfd05f43-dadd-4493-9d7f-54304da44dcf-master.m3u8https://video.igem.org/videos/embed/4k4YDrarKXswVKkF16Cski5640222023-10-23T10:41:00.234ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wUF6en8Af7TSJB3WV3r3Pshttps://video.igem.org/lazy-static/thumbnails/636d0d97-ae41-403a-aadd-7aae34c8c455.jpgDUT-China: Modec-Modular detection tool based on Mi3 protein cage (2023) - Team Presentation [Eng...**Title:** Modec-Modular detection tool based on Mi3 protein cage **Description:** Protein cages, self-assembled structures from multiple copies of subunits, offer distinct advantages. Their functionalization has garnered substantial interest in synthetic biology. Despite extensive engineering efforts in various fields, their potential as a diagnostic platform has not been fully explored. Here, we present a versatile 'plug and play' diagnostic platform built on engineered protein cages. Our study reveals that the fusion of SpyCatcher preserves the integrity and structure of Streptavidin. Employing SpyTag/SpyCatcher chemistry, we efficiently assembled SpyTag-labeled eGFP and Streptavidin on the Mi3 protein cage. We demonstrated Streptavidin accessibility via FNA, facilitating the attachment of biotin-tagged antibodies to protein cages. As a proof-of-concept, we employed biotin-labeled anti-BSA antibodies, observing enhanced binding affinity to target proteins BSA. This scaffold holds promise for recruiting diverse antibodies to detect various disease biomarkers, extending its diagnostic applicability beyond heart failure. Our findings underscore the adaptability and potential of protein cages as a next-generation diagnostic tool. [Wiki](https://2022.igem.wiki/dut-china)https://static.igem.org/peertube/streaming-playlists/hls/fa4ced0f-91a5-4a19-95d5-d2a4443494b0/578fe62f-3ae8-4360-99ef-df06280c8a51-master.m3u8https://video.igem.org/videos/embed/wUF6en8Af7TSJB3WV3r3Ps8730572023-10-23T11:10:49.654ZYES2023 Team PresentationsNOhttps://video.igem.org/w/m64dCpVNWy9XHCDBxg8r17https://video.igem.org/lazy-static/thumbnails/d0d043df-5d85-4122-9965-480a2596bc68.jpgGifu: Crispr ageinst resistance (2023) - Team Presentation [English]**Title:** Crispr ageinst resistance **Description:** Our Gifu team is focused on addressing future antibiotic-resistant bacterial infections using the Cas system. We aim to eliminate the genes contributing to this resistance, thus neutralizing the bacteria's defense and halting their spread. The CRISPR-MultiTargeter tool aids in designing gRNAs targeting common parts of these bacteria, ensuring effectiveness despite mutations. We aspire to integrate this system into phages for efficient phage therapy, offering a novel approach to counteracting the escalating issue of drug-resistant bacteria. [Wiki](https://2022.igem.wiki/gifu)https://static.igem.org/peertube/streaming-playlists/hls/a2ab799c-4377-4610-a298-ff9fe7040b32/fd9c7ec3-651f-4239-9a65-75f62dd5927c-master.m3u8https://video.igem.org/videos/embed/m64dCpVNWy9XHCDBxg8r178550292023-10-23T11:18:49.301ZYES2023 Team PresentationsNOhttps://video.igem.org/w/nKxFCwwNyDPwCTsYYx6my5https://video.igem.org/lazy-static/thumbnails/80b40c2d-80da-4983-9129-e4e7e8764169.jpgTJUSLS-China: P-eat: A targeted mutation of PEase to improve thermostability (2023) - Team Presen...**Title:** P-eat: A targeted mutation of PEase to improve thermostability **Description:** Polyethylene plastic (PE) can be seen everywhere in our lives. High production and low recovery rate make PE plastic pollution a worldwide environmental problem. Current treatment of PE requires the oxidation of C-C bond using physical or chemical methods. PEase, discovered recently, is the only enzyme that can oxidize PE at room temperature. However, PE plastics will change their internal molecular arrangement and are more likely to be oxidized at high temperatures. Therefore, we optimized PEase with four rational design methods to improve its thermostability. First, we used a variety of software to screen, iterate and verify the mutation points to obtain possible mutants. Then we performed experiments on these mutants to test their thermostability and enzyme activity. We ended up obtaining 25 mutants with improved thermostability. Among them, the best mutant was improved by more than 12%. Our project lays the foundation for future industrial applications of PEase. [Wiki](https://2022.igem.wiki/tjusls-china)https://static.igem.org/peertube/streaming-playlists/hls/b0246b63-06d8-49cc-9f94-26e751c8eacc/e0f800e6-be01-450d-b907-81e17569f319-master.m3u8https://video.igem.org/videos/embed/nKxFCwwNyDPwCTsYYx6my58240742023-10-23T12:21:40.612ZYES2023 Team PresentationsNOhttps://video.igem.org/w/n5rsxPHyHx7YDRU44SUzqEhttps://video.igem.org/lazy-static/thumbnails/4aeebe4f-34f9-4555-b219-0717cd138c98.jpgDNHS-SanDiego-CA: PlastiFind (2023) - Team Presentation [English]**Title:** PlastiFind **Description:** Every year around 20 million tons of plastic waste leaks into aquatic ecosystems. Polyethylene terephthalate (PET) is a commonly used thermoplastic resin. Global accumulation of plastic can be counteracted by improving PET degradation in the environment. However, scientists currently lack efficient methods to measure PET hydrolysis, making it difficult to research further in this field. The goal of this project is to develop a sensitive plasmid biosensor to detect terephthalic acid (TPA), a byproduct of PET hydrolysis. The TPA-sensitive plasmids were built using a variety of promoters, importers, and reporters. Use of the MucK importer, mEmerald fluorescent protein, and changing the promoter s -35 and -10 sigma factors to match that of promoter pTPA3 demonstrated the highest increase. The optimal binding configurations with TPA were predicted via molecular docking to support the results. This research makes important contributions to the field of plastic degradation as a whole. [Wiki](https://2022.igem.wiki/dnhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/aaae9369-6295-40e3-bac6-b5caeacb5d1a/e72669b9-a3cd-4515-9c3f-c2ab6d9314e3-master.m3u8https://video.igem.org/videos/embed/n5rsxPHyHx7YDRU44SUzqE9000232023-10-23T12:30:26.029ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7qemaY2GskoLi3Q8bY3zJChttps://video.igem.org/lazy-static/thumbnails/3847421a-9b7f-4051-ac49-4ae26db8529e.jpgPrinceton: Stick and Secrete: Building an Interkingdom Communication Pathway Bet... (2023) - Team...**Title:** Stick and Secrete: Building an Interkingdom Communication Pathway Between Bacteria and Mammalian Cells **Description:** We aim to develop a novel stick-and-secrete bacterial-mammalian cell communication system where engineered bacteria selectively adhere to mammalian cells, then secrete a ligand to elicit a particular response in the mammalian cell. This project is designed to be a modular toolbox that can provide a diverse array of highly localized responses in mammalian cells for scientific research. We show successful proof-of-concept nanobody-antigen binding between mammalian and bacterial cells, and successful secretion of the EGF ligand, which binds to EGFR on the mammalian cell. Among the applications of our system, we envision this technology as a cheaper, more accessible alternative to CAR-T therapy, a form of cellular immunotherapy that uses engineered T Cells to locate and destroy cancer cells. At the same time, this novel stick-and-secrete paradigm can be applied in founational research to precisely stimulate certain cell types or model interkingdom interactions like those in the gut microbiome. [Wiki](https://2022.igem.wiki/princeton)https://static.igem.org/peertube/streaming-playlists/hls/33f8e886-dd63-4861-86f5-b8f8cf5e931c/108b064c-78b3-40b7-9d04-cf33a8d2081a-master.m3u8https://video.igem.org/videos/embed/7qemaY2GskoLi3Q8bY3zJC8010332023-10-23T12:35:47.339ZYES2023 Team PresentationsNOhttps://video.igem.org/w/x1F2boaUoXg5n9QCGaLLBphttps://video.igem.org/lazy-static/thumbnails/9f1c99e2-6271-4238-bb4d-a897f886f386.jpgWestlake-China: Biosynthesis and Applications of Iron Oxide Nanoparticles (2023) - Team Presentat...**Title:** Biosynthesis and Applications of Iron Oxide Nanoparticles **Description:** We're trying to develop a new treatment for breast cancer based on the iron oxide nanoparticles linked with antibody targeting HER2 protein on some breast cancer cells. We are using a green biological method to synthesize the IONPs by the E. coli dircetly with ferric ions as the inducer. We choose to synthesize the IONPs and the antibody separately as self-assembly is still hard when the coating composition of IONPs is now clear. Then we link them together through the NHS-PEG-Maleimide bridge or through EDC-NHS linkage. For the antibody, the scFv domain of the anti HER2 antibody chose by us had been proved to be properly expressed in the SHuffle strain E. coli. So we integrate the scFv domain into vector pGLO along with the functional groups for linkage and separation. After vector transformation, protein expression, purification and IONPs linkage, finally we tested the cytotoxicity of the IONPs. [Wiki](https://2022.igem.wiki/westlake-china)https://static.igem.org/peertube/streaming-playlists/hls/fb235878-a6d1-4fd5-a3ef-1868ff23baa5/15e0ec17-39fc-4994-a4dc-9347ae52871f-master.m3u8https://video.igem.org/videos/embed/x1F2boaUoXg5n9QCGaLLBp8690442023-10-23T12:45:12.581ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qjVGxup2aQRWhSaMQfKAxnhttps://video.igem.org/lazy-static/thumbnails/e7ea7440-692a-4eb8-93ba-e6625ae48bef.jpgShanghaiTech-China: LAMPS (Luminous Algae Material Presenting System) (2023) - Team Presentation ...**Title:** LAMPS (Luminous Algae Material Presenting System) **Description:** Imagine a living light bulb that can glow in the dark and use sunlight as its energy source. That's what ShanghaiTech-China iGEM team have created this year. We transferred the luxCDABEFG gene into Synechococcus elongatus, a cyanobacterium that performs photosynthesis. At the same time, we use fusion protein technology and bioluminescence resonance energy transfer (BRET) technology to enable it to emit more intense light in the fully visible spectrum. By doing so, we enabled Synechococcus to emit light using the carbon source products of photosynthesis. At the same time, we used the intrinsic rhythm system of Synechococcus to control its luminescence, so that it can switch on and off according to the day-night cycle. It is hoped that this novel organism can become a carbon-free green lighting system in the future, with applications in biotechnology, environmental engineering and art. [Wiki](https://2022.igem.wiki/shanghaitech-china)https://static.igem.org/peertube/streaming-playlists/hls/c4ffcf13-af8b-4dd3-ae55-c6235385b93b/bb18fbed-4cd8-4d29-b454-edfe561f85db-master.m3u8https://video.igem.org/videos/embed/qjVGxup2aQRWhSaMQfKAxn84402762023-10-23T12:53:57.533ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4zSY2QNrtboCRmSNofcdWJhttps://video.igem.org/lazy-static/thumbnails/1206b899-eeb2-4b5e-ac4e-7ff6076e112c.jpgiBowu-China: BeePystErase: A Synthetic Biology Approach for Bio-Degradation of P... (2023) - Team...**Title:** BeePystErase: A Synthetic Biology Approach for Bio-Degradation of Pyrethroids **Description:** Our project in 2023 addresses the environmental concerns of pyrethroids, synthetic pesticides with detrimental effects on non-target, neutral creatures like bees. Despite the chemical's market prevalence, pyrethroid's neurotoxicity and ecosystem imbalances necessitate urgent remediation strategies. Our approach harnesses carboxylesterases to degrade pyrethroids into less harmful metabolites. Multiple enzymes from various species were identifies, cloned and expressed in E. coli. A quick test strip method was used to examine the enzymes' effectiveness qualitatively, and helped identified the best enzyme in realistic working conditions. We propose integrating these biodegradation systems into wastewater treatments and considered auxillary intervention measures to mitigate direct, residual, and pollen/nectar exposures. Comprehensive risk assessments ensure our methods' biosafety, aiming for ecological preservation and sustainable pest management. [Wiki](https://2022.igem.wiki/ibowu-china)https://static.igem.org/peertube/streaming-playlists/hls/1d065e8d-47c1-4b02-b7e9-eb8f175dd6ee/bce0e87a-0e02-4c6a-8985-4462af58359a-master.m3u8https://video.igem.org/videos/embed/4zSY2QNrtboCRmSNofcdWJ7820152023-10-23T13:00:29.467ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cVC1coz7wR2f3YbPE5vAWFhttps://video.igem.org/lazy-static/thumbnails/b83837a3-05f4-4699-896a-2a6bace48845.jpgMSP-Maastricht: Sublimestone: A Dual Microbial System for the Restoration of Lim... (2023) - Team...**Title:** Sublimestone: A Dual Microbial System for the Restoration of Limestone Buildings **Description:** What do the Great Pyramid of Giza, the Parthenon and the Empire State Building have in common? They are all made from the same building material: limestone. These and many other limestone architectural gems are deteriorating at an alarming rate due to environmental factors enhanced by climate change, such as acid rain, prolonged rain seasons and air pollutants. To counter this, our project employs a dual microbial system, aimed at both fortifying limestone structures and promoting calcite mineralization. Central to our project is a membrane fusion protein for extracellular display of the enzyme carbonic anhydrase (CA), enabling the rapid hydration reaction of CO2 to calcium carbonate (CaCO3). Furthermore, our 3D DNA origami lattice, designed for optimal CaCO3 nucleation, offers a solid structural foundation for the CaCO3 crystals to adhere to. This poses a promising alternative to current restoration methods, which are costly and can alter the appearance of the buildings. [Wiki](https://2022.igem.wiki/msp-maastricht)https://static.igem.org/peertube/streaming-playlists/hls/60912208-a836-4030-bd55-0b1af8899673/0512b760-b7f7-4c07-8333-e52bab61fa7e-master.m3u8https://video.igem.org/videos/embed/cVC1coz7wR2f3YbPE5vAWF90102702023-10-23T13:10:39.660ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bQAqjKo9WZhWgLpewgxZBihttps://video.igem.org/lazy-static/thumbnails/c1c64fb3-fea5-4469-acfe-8872ba44bf55.jpgVilnius-Lithuania: Exullose unlocking the potential of biomaterials (2023) - Team Presentation [E...**Title:** Exullose unlocking the potential of biomaterials **Description:** Researchers have shown an ever-growing interest in bio-based materials, driven by their sustainability and versatility for various industrial applications. Our quest for the ideal material to meet the demands of a complex world was accomplished by employing genetic engineering principles. We have created synthetic biology tools for in vivo alterations of bacterial cellulose composition in Komagataeibacter xylinus. This system was utilized to modify the cellulose polymer in three different ways: (1) bacterial cellulose-chitosan polymer was produced after cellulose-chitin deacetylation. Not only this copolymer is an easily modifiable platform, the enhanced chemical reactivity of the polymer allows for specific functionalizations in the biomedicine field, such as wound dressings; (2) indigo-dyed cellulose is one of the ways that cellulose may be employed in green chemistry processes to tailor bacterial cellulose in the textile industry; (3) cellulose and polyhydroxybutyrate (PHB) composite is a potential alternative to fossil fuel-based materials. [Wiki](https://2022.igem.wiki/vilnius-lithuania)https://static.igem.org/peertube/streaming-playlists/hls/57c44c9b-8407-432f-8ad4-2f1d00d9294b/2a1fc919-a34e-4a61-ac74-301905b701de-master.m3u8https://video.igem.org/videos/embed/bQAqjKo9WZhWgLpewgxZBi76902902023-10-23T13:16:50.228ZYES2023 Team PresentationsNOhttps://video.igem.org/w/oA2EfcoRwucNUJguav3Ae1https://video.igem.org/lazy-static/thumbnails/a5739993-59c9-41de-9ece-010cafb598f5.jpgSquirrel-CHN-II: SymbioSerotonin: Cultivating Happiness from Within (2023) - Team Presentation [E...**Title:** SymbioSerotonin: Cultivating Happiness from Within **Description:** 5-Hydroxytryptamine (5-HT), also known as serotonin, is a key neurotransmitter in mood regulation, sleep, and various physiological processes. Imbalances in serotonin levels, especially deficiencies, are associated with depression's pathogenesis, causing persistent sadness and loss of pleasure. Antidepressant medications targeting serotonin have been proven effective, enhancing patients' emotional and mental well-being with fewer side effects than alternatives. Therefore, our project aims to synthetically produce serotonin for depression treatment. By introducing tryptophan hydroxylase 1 (TPH1) through symbiotic bacteria in the patient's gut, we intend to boost serotonin levels. Four TPH1 genes from humans, mice, rabbits, and zebrafish are considered for their comparative functional activities, following Michaelis-Menten kinetics. To ensure safety, we've incorporated an arabinose-inducible suicide system inspired by a prior project, preventing unintended biological contamination or genetically modified organism release. [Wiki](https://2022.igem.wiki/squirrel-chn-ii)https://static.igem.org/peertube/streaming-playlists/hls/b6e95c80-906f-49bc-9c33-e7e7ed3281fa/a0cc2c4f-f5bb-464b-9006-aff9a6c59505-master.m3u8https://video.igem.org/videos/embed/oA2EfcoRwucNUJguav3Ae16700122023-10-23T13:21:27.191ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8B9J4ue1ZS5QfhuJDP72Puhttps://video.igem.org/lazy-static/thumbnails/a685962c-2fb3-430a-b2cb-cac0d5fa101a.jpgSYSU-Software: BioRocket: Systematic Discovery of Novel Protein Delivery Systems... (2023) - Team...**Title:** BioRocket: Systematic Discovery of Novel Protein Delivery Systems in Massive Prokaryotic Genomes **Description:** Prokaryotes have evolved various protein delivery systems that enable these organisms to interface with host cells. One example, the extracellular Contractile Injection Systems (eCISs) are syringe-like protein complexes that can inject proteins into host cells. Despite the potential as programmable protein delivery tools, only a few eCISs have been characterized. Here, we designed the BioRocket platform to systematically mine eCISs from prokaryotic genomes using machine learning and structure-based protein alignment methods. We use BioRocket to analyze more than 80,000 available bacterial and archaeal genomes and ultimately predicted 5,524 novel eCISs based on sequence and structure information. We further conducted wet-lab experiments to validate the predicted data. Our work has significantly expanded the diversity of eCISs, laying a solid foundation for their future use as a programmable protein delivery tool in synthetic biology research and clinical therapy. [Wiki](https://2022.igem.wiki/sysu-software)https://static.igem.org/peertube/streaming-playlists/hls/3d986130-b8be-41ec-9f3b-fb6b1601c366/a939d43e-5c0c-4a96-bf86-39bf8911ae8a-master.m3u8https://video.igem.org/videos/embed/8B9J4ue1ZS5QfhuJDP72Pu8830532023-10-23T13:30:23.663ZYES2023 Team PresentationsNOhttps://video.igem.org/w/e34B2Q8fzL5UVUWr6JBmg4https://video.igem.org/lazy-static/thumbnails/f0c07e63-79af-4dd3-80b3-89dac2080342.jpgAthens: ScentiPD (2023) - Team Presentation [English]**Title:** ScentiPD **Description:** The goal of our project is the creation of a portable diagnostic kit for the detection and quantification of specific Volatile Organic Compounds (VOCs) from skin sebum. Those compounds have been associated with Parkinson s Disease (PD), with evidence pointing to their change in concentration occurring long before the evident onset of the disease. The alternative way to measure these compounds would be a GC/MS machine, with obvious drawbacks. Our proposed way for this detection is using the M13 Bacteriophage as a colorimetric biosensor. This technique utilizes the phage s capsid proteins, which can obtain affinity for the target compounds by genetic engineering. After the VOC-protein binding has occurred, the phages swell , changing the way they interact with light, and finally giving off a different color. This color is structural (not dependent on dyes) and non-iridescent (not affected by the viewing angle), and can then be captured and quantified by a camera. [Wiki](https://2022.igem.wiki/athens)https://static.igem.org/peertube/streaming-playlists/hls/699082db-505a-4f7d-8e8c-3a36abaaa7b1/3839cb16-c5ef-49f1-9a98-fe284c50215d-master.m3u8https://video.igem.org/videos/embed/e34B2Q8fzL5UVUWr6JBmg47980572023-10-23T13:36:42.532ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rgTnxoL6HzMxtvEphNzwX2https://video.igem.org/lazy-static/thumbnails/5ee1295b-ff23-45e5-b785-f7ae5ecf37a4.jpgKyoto: Avoideer - From the Flask to the Field - (2023) - Team Presentation [English]**Title:** Avoideer - From the Flask to the Field - **Description:** With one in nine people suffering from hunger, achieving global food security is now a more pressing issue than ever. One of the biggest challenges to achieving this goal is agricultural damage from wild animals, and in Kyoto, deer are the main cause of this problem. This year, iGEM Kyoto proposes a new solution that utilizes engineered E. coli for sustained production and release of repellent molecules. This solution utilizes E. coli engineered to supress its own population and recycle nutrients from dead cells for long-term production. Furthermore, to implement this system to the field, we have also designed a cheap, low-maintenance device powered only by water's latent heat of vaporization capable of long-term autonomous agitation for outdoor E. coli cultivation and repellent door dispensing. We envision crop damage by deer to be controlled by cultivating E. coli that produce repellents dispensed from our devices. [Wiki](https://2022.igem.wiki/kyoto)https://static.igem.org/peertube/streaming-playlists/hls/ccac4824-1159-40d3-bead-ce6bdfbdf677/ca4e163a-18ae-4821-a634-8a0df93bf3eb-master.m3u8https://video.igem.org/videos/embed/rgTnxoL6HzMxtvEphNzwX284402932023-10-23T13:50:57.628ZYES2023 Team PresentationsNOhttps://video.igem.org/w/jKAxsZyVZhNvLDUBQaEhJAhttps://video.igem.org/lazy-static/thumbnails/8178fa25-6a16-4682-ad11-f311fcaa02d8.jpgSDU-Denmark: In Vitro Optimization of Dehalogenases for PFAS Degradation (2023) - Team Presentati...**Title:** In Vitro Optimization of Dehalogenases for PFAS Degradation **Description:** PFAS (per- and polyfluoroalkyl substances) pollution has garnered significant media attention in Denmark, due to its detrimental impact on groundwater and human health. A primary challenge lies in degrading PFAS, given the highly stable carbon-fluorine bonds present in their structure. The project aims to enhance the enzymatic activity of dehalogenases isolated from Delfia acidovorans for the degradation of perfluorooctanoic acid (PFOA). Utilizing a fluoride-sensitive riboswitch linked to the expression of green fluorescent protein, we can effectively measure enzymatic activity and thus assess the enzymatic activity of the optimized dehalogenases. Through computational modeling, we have predicted the protein structures and optimized binding pockets for PFOA and other PFAS. These predictions were compared to variants from a dehalogenase mutant library generated using error-prone PCR. Collaboration with local water treatment facilities has tailored our project to real-life applications, paving the way for potential advancements in PFAS bioremediation strategies. [Wiki](https://2022.igem.wiki/sdu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/97dac3fc-20b8-4cff-90f2-184646a2df26/2dc2b31b-a94c-42c6-927f-d4ab600ff2b5-master.m3u8https://video.igem.org/videos/embed/jKAxsZyVZhNvLDUBQaEhJA7840722023-10-23T07:56:40.132ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rfqNY1BrvudC2mGVk8txHwhttps://video.igem.org/lazy-static/thumbnails/bf2b21db-6a09-49a9-a792-90b35e910ccd.jpgGXU-China: Microbial production of curcumin as a mildew-proof bio-pigment material. (2023) - Team...**Title:** Microbial production of curcumin as a mildew-proof bio-pigment material. **Description:** Curcumin is a natural compound extracted from zingiberaceae, which has attracted worldwide attention because of its antioxidant, anticancer and mildew-proof functions. At present, the method of extracting curcumin from plants is squeezing and dissolving, which consumes a lot of energy and the output is far from meeting the market demand. At the same time, traditional mineral pigments are harmful to human body, while biological pigments are healthier. Therefore, we imagine using Escherichia coli to produce curcumin, and then using curcumin's characteristics of health, mildew resistance and oxidation resistance to boost the application of curcumin in medicine and color restoration of cultural relics. [Wiki](https://2022.igem.wiki/gxu-china)https://static.igem.org/peertube/streaming-playlists/hls/cc782b38-ac8a-42d0-a016-1d3389cee68c/860ec74e-3196-4f11-a8b6-fe861ade8c10-master.m3u8https://video.igem.org/videos/embed/rfqNY1BrvudC2mGVk8txHw8920262023-10-23T08:04:09.990ZYES2023 Team PresentationsNOhttps://video.igem.org/w/iz4EASCDLnKJgV6FxNmFCXhttps://video.igem.org/lazy-static/thumbnails/93d6ccc0-fd4a-4cde-a53e-18dfffeca83d.jpgHKUST: Cereulight Be Cereus , Be Cereu-Free, with Cereulight ! (2023) - Team Presentation [English]**Title:** Cereulight Be Cereus , Be Cereu-Free, with Cereulight ! **Description:** Cereulide is a food toxin produced by Bacillus cereus that is mainly found in pre-cooked starchy food. To detect cereulide in food samples, our team aims to create a low-cost, user-friendly colorimetric biosensor that can detect high levels of cereulide on-site, to prevent possible symptoms from cereulide poisoning including but not limited to vomiting, nausea, and potential liver damage. Our circuit makes use of the potassium ion efflux effect caused by cereulide on B. subtilis, our chassis, which activates the histidine kinase C in B. subtilis. This will result in the activation of the SinI promoter which will express a red signal when cereulide exceeds the safe level. Subsequently, if the sample consists of a safe level of cereulide, a green signal will be produced to indicate safety. To ensure safety and enhance the efficiency of the sensing process, biosensor cells are immobilized in PEG-PVA hydrogel discs as prototypes. [Wiki](https://2022.igem.wiki/hkust)https://static.igem.org/peertube/streaming-playlists/hls/8e49291c-fab5-4534-9b1d-517be7597e7b/ca7f951e-c1bc-4569-9a4a-68a673515acb-master.m3u8https://video.igem.org/videos/embed/iz4EASCDLnKJgV6FxNmFCX8990342023-10-23T08:11:35.322ZYES2023 Team PresentationsNOhttps://video.igem.org/w/43KXCymBC1CMecPUggoksehttps://video.igem.org/lazy-static/thumbnails/ed4e161c-3837-417a-af04-2ec735fa636d.jpgOhio-State-FABE: DiGI-T3 - Digitally Optimized Gastrointestinal Therapeutics for... (2023) - Team...**Title:** DiGI-T3 - Digitally Optimized Gastrointestinal Therapeutics for Type 3 Secretion **Description:** Many diseases result from dysfunctional proteins, but therapeutics directly targeting them are limited. Current treatments, mainly small molecules, cause side effects. Ohio State's iGEM team is exploring a solution using Type III Secretion Systems (T3SS) for continuous therapeutic protein delivery. Although native to some infectious bacteria, T3SS can be modified for safe use in Escherichia coli to deliver therapeutic proteins, particularly targeting gastrointestinal diseases. Our dry-lab successfully modeled optimization of T3 secretion sequences in Java, offering insights into T3SS function and sequence design for efficient secretion. We engaged in outreach events like COSI and WestFest, educating the public about our project and synthetic biology. Conversations with professionals informed our approach and emphasized our project's potential for GI cancer treatment. Challenges in lab access limited our wet-lab work, but we documented our plans, paving the way for future T3SS research. Our aim is advancing T3SS studies and spotlighting its therapeutic promise. [Wiki](https://2022.igem.wiki/ohio-state-fabe)https://static.igem.org/peertube/streaming-playlists/hls/18adfe8a-be0e-431c-b34f-72636617aadd/695c84be-4111-4196-a93c-f43fd18595d6-master.m3u8https://video.igem.org/videos/embed/43KXCymBC1CMecPUggokse7670122023-10-23T08:20:20.676ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wLsRf1hDWhMPV1u4MEzWQEhttps://video.igem.org/lazy-static/thumbnails/3a6fb53d-4c44-47f9-96db-befc60d70c85.jpgFZPt-CHINA: Microalgae-based and Bacteria-assisted (2023) - Team Presentation [English]**Title:** Microalgae-based and Bacteria-assisted **Description:** In this year's study, our team co-cultured Phaeodactylum tricornutum and Erythrobacter aquimaris, building on the previous year's work. This co-culture strategy is designed to optimize the synergistic interaction between these two organisms, enhancing the efficiency and efficacy of wastewater treatment. P. tricornutum exhibits remarkable biodegradability and plays a key role in the wastewater treatment process. Bacteria produce crucial metabolites that facilitate the decomposition and removal of organic waste. By co-cultivating these two organisms, their combined effects can be harnessed for more efficient sewage treatment outcomes. In addition, our team has devised a novel enclosure apparatus to house P. tricornutum and Erythrobacter marine, ensuring a secure and stable environment while facilitating subsequent recovery operations to ensure sustainable system operation. Simultaneously, encapsulation ensures that biosecurity measures are upheld while minimizing potential risks. [Wiki](https://2022.igem.wiki/fzpt-china)https://static.igem.org/peertube/streaming-playlists/hls/f9276e94-cedc-4da5-89c6-06246716ac06/a3b065ac-7a92-477e-983f-29dbfd764259-master.m3u8https://video.igem.org/videos/embed/wLsRf1hDWhMPV1u4MEzWQE8990822023-10-23T08:35:38.212ZYES2023 Team PresentationsNOhttps://video.igem.org/w/xwQKa1aMZj3FVTYAKMKyiyhttps://video.igem.org/lazy-static/thumbnails/e4bc3c6b-0683-4704-920f-5bc240623d5e.jpgMontpellier: Aedes n seek, searching pathogens in mosquitos. (2023) - Team Presentation [English]**Title:** Aedes n seek, searching pathogens in mosquitos. **Description:** Abstract : Our primary objective was to create a robust pathogen detection system and transmit the information directly to researchers. After numerous iterations, with an initial focus on the West Nile virus sequence, Cas13a protein, and guide RNA, we proudly introduce the prototype of this cutting-edge system. This versatile model forms the basis for detecting a range of pathogens, including diseases like dengue and chikungunya. By harnessing the extraordinary specificity of Cas13a and guide RNA, our innovation facilitates precise identification of pathogenic nucleic acids within mosquito samples. This breakthrough has the potential to redefine pathogen detection, providing a potent tool for epidemiologists and researchers in their ongoing battle against mosquito-borne diseases. With further refinements and expansions, this technology holds the promise of significantly enhancing public health efforts. It enables early interventions and plays a pivotal role in epidemic prevention, representing a major stride toward a safer, healthier future. [Wiki](https://2022.igem.wiki/montpellier)https://static.igem.org/peertube/streaming-playlists/hls/ff59a6b1-d8c8-40c1-a997-7ffc24419c62/640abbbc-3f6f-4db1-a1ca-a1882f13824c-master.m3u8https://video.igem.org/videos/embed/xwQKa1aMZj3FVTYAKMKyiy3700132023-10-23T13:57:07.606ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qnpuzjKeVZWSa6ekRHQYEmhttps://video.igem.org/lazy-static/thumbnails/0bd3d76c-9349-47a7-95c5-4897251b8ba3.jpgthessaloniki: Euphoresis: a synbio soil-ution for forest conservation (2023) - Team Presentation ...**Title:** Euphoresis: a synbio soil-ution for forest conservation **Description:** In a period when the earth s natural balance is heavily impacted by climate change, wildfires intensity and frequency have become a major issue for ecosystems. Their unprecedented severity heavily threatens forest plant life and biodiversity, while it also affects soil properties, leading to the reduction of organic matter and nutrients, such as nitrogenic compounds, and hydrophobic structures formation that result in soil erosion and water runoff. iGEM Thessaloniki faces those problems by creating a SynBio solution called Euphoresis . Euphoresis acts as a soil conditioner and biofertilizer and consists of three levels: a biopolymeric hydrogel capable of absorbing water, constructed by polysaccharides pectin and chitosan, derived from food waste, and a synthetic, antimicrobial peptide; a microbial consortium between Bacillus subtilis, engineered to produce laccases that break down hydrophobic structures; and Nostoc oryzae with enhanced nitrogen fixation ability; seeds from local species, boosting natural reforestation when necessary. [Wiki](https://2022.igem.wiki/thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/c5586cc4-d83a-45d6-acb1-8a1eb5dfa180/8e565c3a-0658-43c4-89fb-34e505b8b292-master.m3u8https://video.igem.org/videos/embed/qnpuzjKeVZWSa6ekRHQYEm8980782023-10-23T14:05:55.525ZYES2023 Team PresentationsNOhttps://video.igem.org/w/f6nPcJSGNEPh1xh8svB7nChttps://video.igem.org/lazy-static/thumbnails/a3580771-69ca-4633-b2d9-a0a83e6ab541.jpgBASIS-China: CyanoScent (2023) - Team Presentation [English]**Title:** CyanoScent **Description:** Aromatherapy can serve as a complementary therapy to alleviate stress. However, traditional methods of producing aromatic substances, such as terpenes, are often both complex and environmentally damaging. Therefore, we endeavored to discover a synthetic approach to produce these aroma substances, replacing traditional processes and making them directly usable in daily life. We finally decided to use cyanobacteria as a chassis. Through photosynthesis, our engineering cyanobacteria can utilize carbon dioxide and sunlight to produce these terpenes. Following we are committed to developing our scent-producing cyanobacteria into bioreactors that can meet people's daily needs. We have designed several bioreactors to support the growth and scent production of cyanobacteria. Additionally, we have incorporated suicide switches within the cyanobacteria to prevent biohazards associated with the engineered organisms. [Wiki](https://2022.igem.wiki/basis-china)https://static.igem.org/peertube/streaming-playlists/hls/72201a74-afcb-4d7f-b61b-834a365b7f06/da636d7f-80d7-41c9-9410-54bfc2340c01-master.m3u8https://video.igem.org/videos/embed/f6nPcJSGNEPh1xh8svB7nC83406192023-10-23T14:15:43.824ZYES2023 Team PresentationsNOhttps://video.igem.org/w/n6PHqmTZopDvtS7XokXCU2https://video.igem.org/lazy-static/thumbnails/63f2af7b-f46e-4fe5-991c-bb3f88a8141b.jpgIITChicago: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/iitchicago)https://static.igem.org/peertube/streaming-playlists/hls/aae0091c-9056-4fd0-81d9-ecf4924fea21/1f36ef7b-f6d3-4ca2-b7ab-353791a2630d-master.m3u8https://video.igem.org/videos/embed/n6PHqmTZopDvtS7XokXCU29000152023-10-23T08:50:50.836ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uw2xVy4ujysT7BRCzoaxNjhttps://video.igem.org/lazy-static/thumbnails/b5d7a98a-d2cf-4770-8c9f-f768caee31bc.jpgNantes: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/nantes)https://static.igem.org/peertube/streaming-playlists/hls/e6f126ab-24e8-4778-8531-a7f41b1d94c2/537e3972-71d5-41bd-ae09-8e2052a23eb3-master.m3u8https://video.igem.org/videos/embed/uw2xVy4ujysT7BRCzoaxNj50312023-10-23T08:50:52.743ZYES2023 Team PresentationsNOhttps://video.igem.org/w/syWRA5VVF2ofKMU62XrxYGhttps://video.igem.org/lazy-static/thumbnails/548228cb-b0ab-4fde-bf20-f837d42e0ae6.jpgCity-of-London-UK: Genoswitch (2023) - Team Presentation [English]**Title:** Genoswitch **Description:** Women s health is an area within medicine that has been historically underfunded and under researched. Currently, tests for common conditions in women s health are rudimentary and invasive, with women often not receiving a diagnosis for many years after the onset of symptoms. Project Genoswitch aims to spread awareness about women s health and to develop a modular cell-free diagnostic test that can decrease the length of time to receive a diagnosis, by detecting upregulated microRNA biomarkers in the bloodstream, using four toehold switches in one composite gene fragment, which can each detect three upregulated microRNAs in the serum of patients with the condition. Our test specifically targets PCOS, endometriosis, breast cancer, and ovarian cancer, although it can be used more widely. This test will provide a more cost effective and non-invasive approach compared to current methods, increasing the accessibility of miRNA biomarker tests worldwide. [Wiki](https://2022.igem.wiki/city-of-london-uk)https://static.igem.org/peertube/streaming-playlists/hls/d727361c-55e8-4b1e-a8b5-a7e5b7bb3a6c/4a4d82c6-b8e7-41a8-8474-e9e72857e4b6-master.m3u8https://video.igem.org/videos/embed/syWRA5VVF2ofKMU62XrxYG8990452023-10-23T09:01:46.056ZYES2023 Team PresentationsNOhttps://video.igem.org/w/h5k3jzGqTm4mZFUMCDDtt8https://video.igem.org/lazy-static/thumbnails/433ff6ba-a5b7-474c-b5b0-0fe230ce0796.jpgBulgaria: CADABRA - Cleaning Agent Developed for AntiBiotic Resistance Annihilation (2023) - Team...**Title:** CADABRA - Cleaning Agent Developed for AntiBiotic Resistance Annihilation **Description:** The CADABRA project (Cleaning Agent Developed for AntiBiotic Resistance Annihilation) aims to combat antibiotic residue in wastewater, aggravated by the growing threat of antimicrobial resistance. The study targets the substantial release of antibiotics excreted through urine, subsequently entering the sewer systems. Water environments, especially Yantra River, show antimicrobial resistance hotspots, underscoring the research's urgency. It adheres to EQSD regulations, emphasizing the need for effective measures. The project's objective is enhancing naturally occurring metallo- -lactamases' activity, specifically VIM and NDM, to catalyze the hydrolysis of -lactam antibiotics effectively. This involves employing directed evolution and targeted mutagenesis techniques, guided by computational models, plus UV spectroscopy to monitor antibiotic concentrations in liquid samples. The biosafety and economic viability of CADABRA's enzymatic cocktail are paramount, prompting future plans to explore an alternative expression host, Pichia pastoris, for improved characteristics. Overall, CADABRA strives to revolutionize antibiotic removal, ultimately achieving efficient antibiotic hydrolysis and reliable monitoring methods. [Wiki](https://2022.igem.wiki/bulgaria)https://static.igem.org/peertube/streaming-playlists/hls/822ced6e-0e80-4bb9-8f2e-2073d50a92c9/2eee179a-6dce-481c-ae62-86bd0296c489-master.m3u8https://video.igem.org/videos/embed/h5k3jzGqTm4mZFUMCDDtt86860152023-10-23T09:56:58.153ZYES2023 Team PresentationsNOhttps://video.igem.org/w/immDmveY7Zoym3xb6dYrFEhttps://video.igem.org/lazy-static/thumbnails/ce731a21-aa8c-4459-9302-37f65dc56139.jpgLund: Reducing pharmaceutical pollution through microbial degradation (2023) - Team Presentation ...**Title:** Reducing pharmaceutical pollution through microbial degradation **Description:** The detoxifying ecosystems project (DECO) aims to explore a possible cure for the pollution of ecosystems with diclofenac (DF), a common painkiller usually administered in gel form. This drug is present at toxic levels within many of the world's wastewater treatment facilities. The DECO-project is focused on the degradation of DF using E.coli and B.subtilis equipped with different laccase enzymes capable of chemically modifying the drug. The B.sub-native laccase CotA was rationally designed into three mutated versions (DeCotA I, II and III). Bacillus was equipped with two non-native laccases (Yak, Lcc1), and tested for DF degradation with different types of enzymatic assays . Laccase activity modifies DF into a less toxic form that degrades more easily. To do this effectively, a bacillus biofilm would likely have to be grown on a carrier material, equipped with a fail-safe mechanism and applied in wastewater treatment following an active sludge stage. [Wiki](https://2022.igem.wiki/lund)https://static.igem.org/peertube/streaming-playlists/hls/8c82f477-cca8-4ffa-95ef-e0cdf6d6e120/78dbe2df-2b1d-4986-962b-b574e9389527-master.m3u8https://video.igem.org/videos/embed/immDmveY7Zoym3xb6dYrFE7900302023-10-23T14:30:44.918ZYES2023 Team PresentationsNOhttps://video.igem.org/w/sT7BFvx5pPBz5vcfZxx7oPhttps://video.igem.org/lazy-static/thumbnails/62cad653-c2f6-4904-a52f-a25fa27e9ab6.jpgHUBU-HUBEI-CHINA: Seed Player: Metabolic Engineering of B. licheniformis For Enh... (2023) - Team...**Title:** Seed Player: Metabolic Engineering of B. licheniformis For Enhanced Hydroxytyrosol Production **Description:** Hydroxytyrosol (HT) is a polyphenol found in olives, known for its antioxidant and anti-inflammatory properties. However, its large-scale application is limited due to the high production costs associated with traditional plant extraction and chemical synthesis methods. Microbial production offers a promising alternative but faces challenges such as low strain tolerance, complex synthesis pathways, and oxidative degradation. In this work, we focus on establishing and optimizing the HT production pathway in Bacillus licheniformis, which exhibits high robustness. Through protein engineering of ketoacid decarboxylase, metabolic pathway optimization, and screening of limiting factors, we have enhanced microbial efficiency. Subsequently, we further refined the scale-up culture processes to boost HT yield. Leveraging synthetic biology, we aim to achieve a more cost-effective and sustainable production of hydroxytyrosol, unlocking its potential applications ranging from cardiovascular drugs to cosmetics, functional foods, and nutraceuticals. [Wiki](https://2022.igem.wiki/hubu-hubei-china)https://static.igem.org/peertube/streaming-playlists/hls/d9b09d3b-600d-4d2d-999b-6ecf6741806b/2b73aa79-3dda-495f-ac95-caccb72d4bbe-master.m3u8https://video.igem.org/videos/embed/sT7BFvx5pPBz5vcfZxx7oP9000192023-10-23T15:43:29.139ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fLhydoX4DE5XrSCfSPsFEShttps://video.igem.org/lazy-static/thumbnails/8e76d6c7-2f39-4b34-8a3f-a235a14ce610.jpgYale: De Novo Biosynthesis of Daidzein for the Production of (S)-Equol (2023) - Team Presentation...**Title:** De Novo Biosynthesis of Daidzein for the Production of (S)-Equol **Description:** Menopause affects the majority of women approaching the age of 50 and introduces a host of adverse symptoms, such as cardiovascular diseases, and vasomotor and musculoskeletal issues. (S)-equol, an isoflavandiol estrogen produced in the human gut microbiome, has been found to help alleviate post-menopausal symptoms with minimal health risks. However, its effectiveness in the human gut is limited by its low production levels. The production of (S)-equol is dependent on the bioavailability of its precursor daidzein, an isoflavone derived from soy. We aimed to develop a heterologous host for daidzein production in order to improve downstream (S)-equol production. We reconstructed the de novo biosynthetic pathway for daidzein production in E. coli through the modular screening of gene homologs of the seven genes involved in converting the phytochemical precursor p-coumaric acid into daidzein. We then attempted to optimize (S)-equol biosynthesis conditions in which the daidzein pathway will be integrated into. [Wiki](https://2022.igem.wiki/yale)https://static.igem.org/peertube/streaming-playlists/hls/778edea8-23bf-4817-a2df-7c86ae00ba0a/b98d8b75-b497-4fdf-bdee-d3bced2e944a-master.m3u8https://video.igem.org/videos/embed/fLhydoX4DE5XrSCfSPsFES8940312023-10-23T16:06:00.678ZYES2023 Team PresentationsNOhttps://video.igem.org/w/a6CrcsHd1yc5S4PuC3jFGWhttps://video.igem.org/lazy-static/thumbnails/76c92cc0-0db8-44d0-b611-235e6a80a367.jpgFSU: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/fsu)https://static.igem.org/peertube/streaming-playlists/hls/49ab6b99-9390-4ca0-9fe3-d0b026d080b2/ee09a319-f869-4a0e-b7e2-38dfd7ac7f5f-master.m3u8https://video.igem.org/videos/embed/a6CrcsHd1yc5S4PuC3jFGW86202012023-10-23T16:15:38.967ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bFCfUaoesVi5w4nJ6mntCwhttps://video.igem.org/lazy-static/thumbnails/1e517bf2-3b9c-41e0-ad99-3a6679fea253.jpgHNU-China: PHYTO-GARD: Innovative Reporting Systems Indicating Biological and No... (2023) - Team...**Title:** PHYTO-GARD: Innovative Reporting Systems Indicating Biological and Non-Biological Stresses on Plants **Description:** In the face of the pressing global food security crisis arising from the widening gap between population growth and limited arable land, our team at HNU-China presents PHYTO-GARD, an Innovative Reporting System Indicating Biological and Non-Biological Stresses. By introducing the NCED3-RUBY and GLR2.9-Bx reporter systems, we've devised a novel solution. The NCED3 promoter responds to drought conditions, marked by a striking red coloration in plant leaves when activated. In contrast, the GLR2.9 promoter detects pests and diseases, signaling its presence with a vivid yellow hue in plant leaves. PHYTO-GARD stands as an essential tool for early stress detection in plants, offering valuable insights for crop management and food security efforts. This innovative system not only addresses the growing concerns of global food shortages but also paves the way for sustainable agriculture in an era where the harmonious coexistence of humans and the environment is more critical than ever. [Wiki](https://2022.igem.wiki/hnu-china)https://static.igem.org/peertube/streaming-playlists/hls/5683bcdb-d38d-4af0-a238-2194abd5fbba/b6e2e5e5-572f-403e-9092-d6a7c47c0bb5-master.m3u8https://video.igem.org/videos/embed/bFCfUaoesVi5w4nJ6mntCw8930172023-10-23T16:24:37.783ZYES2023 Team PresentationsNOhttps://video.igem.org/w/dYbcqEwRG7V5styVr2EvvNhttps://video.igem.org/lazy-static/thumbnails/78de1f7f-207a-4066-9592-3128d19433a6.jpgIISER-Pune-India: Producing Jatropha-oil based sustainable aviation fuel using Y... (2023) - Team...**Title:** Producing Jatropha-oil based sustainable aviation fuel using Yarrowia lipolytica **Description:** We aim to produce sustainable aviation fuel in the model oleaginous yeast Yarrowia lipolytica. We cloned the thioesterases JcFATA and JcFATB from Jatropha curcas heterologously into the yeast to alter its fatty acid profile to emulate the composition of Jatropha seeds. We chose Jatropha because SAFs based on Jatropha oil have been shown to have superior properties as compared to conventional jet fuel while also having lower CO2 emissions. Further we cloned a photodecarboxylase from Chlorella variabilis, CvFAP, which converts our fatty acids into hydrocarbons, thus simplifying chemical hydroprocessing and making it eco-friendly. In silico, we created a kinetic model which models the fatty acid production pathway follwoing glycolysis in yeast. Through mutation-based specificity analysis, we increased the specificity of the natural efflux pump of Y. lipolytica for hydrocarbon efflux. Finally, we modelled probable interactions between the thioesterases and the native FAS complex of the yeast through molecular docking. [Wiki](https://2022.igem.wiki/iiser-pune-india)https://static.igem.org/peertube/streaming-playlists/hls/69059962-5034-4995-af1e-057093f2a1b4/3ef42a19-b0d8-4d66-aa33-a55575619fb1-master.m3u8https://video.igem.org/videos/embed/dYbcqEwRG7V5styVr2EvvN89904382023-10-23T14:37:24.662ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5QZn9NSK4kDiKEX5gDhxswhttps://video.igem.org/lazy-static/thumbnails/c128c645-fc1c-4459-abbf-9a4ae20b8de7.jpgUiOslo-Norway: Detection of endometriosis associated miRNA with Cas proteins (2023) - Team Presen...**Title:** Detection of endometriosis associated miRNA with Cas proteins **Description:** Endometriosis is a disease that affects women of reproductive age worldwide, caused by the abnormal growth of the endometrial lining outside of the uterus. While the disease can cause various symptoms, the most common are varying degrees of pain and discomfort. This has individual effects and socioeconomic implications, such as increased sick leave and mental health issues. Our goal is to develop a cheaper, safer, and more efficient diagnostic method for endometriosis using blood-miRNA biomarkers and a CRISPR-dCas12 detection system, which would be a significant step towards making this essential diagnostic tool available to people in regions of the world where labs are scarce and less well-equipped. An earlier diagnosis, has the potential to improve the quality of life for affected women. It is also worth mentioning that this diagnostic method can be modified and applied to other diseases in the future. [Wiki](https://2022.igem.wiki/uioslo-norway)https://static.igem.org/peertube/streaming-playlists/hls/273b9b9b-b43d-4b46-8b55-6e05d135820e/56b4c02a-59a5-4759-8005-3afd3b382e52-master.m3u8https://video.igem.org/videos/embed/5QZn9NSK4kDiKEX5gDhxsw8900162023-10-23T15:12:44.316ZYES2023 Team PresentationsNOhttps://video.igem.org/w/xpnf7nDseHxdHb3LnARD3qhttps://video.igem.org/lazy-static/thumbnails/ca386fe4-9342-4643-b417-3e6ab9912e65.jpgWarwick: Engineering a Self-Regulating Feedback Loop in E. coli for Perillyl Alc... (2023) - Team...**Title:** Engineering a Self-Regulating Feedback Loop in E. coli for Perillyl Alcohol Production **Description:** Limonene and perillyl alcohol (PA) are naturally occurring chemical compounds with applications in the food, cosmetic, and cleaning industries. More notably, perillyl alcohol in particular, has shown very promising results in clinical testing as an anticancer drug treating carcinomas, and tumours and acting as a chemoprotectant for skin. With the demand already increasing year by year, these potential implementations will only increase the need for limonene/PA. Because conventional extraction is inefficient and energy-expensive, biomanufacturing seems like the obvious route. However, due to bottlenecks arising from the antimicrobial effects of limonene and PA (as well as other precursors), synthesising the compounds intracellularly isn t at a point where it is utilised on an industrial scale. Our project proposes a two-pronged approach: one using a feedback system to downregulate enzymes involved in PA production and the other using a pump - both will mitigate the toxic effects of our products to increase production. [Wiki](https://2022.igem.wiki/warwick)https://static.igem.org/peertube/streaming-playlists/hls/fe4e7f2e-6fd7-4803-9944-ef8d76f41ea8/45328353-9d14-47ec-8bfc-2bf3195a61b8-master.m3u8https://video.igem.org/videos/embed/xpnf7nDseHxdHb3LnARD3q8890112023-10-23T15:20:39.961ZYES2023 Team PresentationsNOhttps://video.igem.org/w/aZtyRpLNBG2FuVNDzoGrrmhttps://video.igem.org/lazy-static/thumbnails/de62eb37-3277-495e-9417-0779ff966f09.jpgPatrasBio: Using synthetic biology and biotechnology methods for the preservatio... (2023) - Team...**Title:** Using synthetic biology and biotechnology methods for the preservation of the marble monuments **Description:** Bioerosion is defined as any undesirable change that occurs in a material and is due to the activity of microorganisms. This phenomenon threatens marble monuments around the world, therefore its limitation is a matter of paramount importance. Antimicrobial peptides (AMPs) are a diverse class of amphipathic molecules, produced by many tissues and cell types in a variety of invertebrates, plant and animal. AMPs enter the pores of the cell membrane, thereby damaging and killing microorganisms. The aim of this study is to evaluate their activity as key components of a biological biocide. The experimental procedures involve the transformation of E. coli strains with recombinant plasmids containing the desired nucleotide sequence of antimicrobial peptides. After isolation, characterization of the expression and purity of the peptides under study, their efficacy is assessed on gram-positive and gram-negative bacteria, as well as fungi and viruses found in marbles. [Wiki](https://2022.igem.wiki/patrasbio)https://static.igem.org/peertube/streaming-playlists/hls/50e8a198-9be8-4080-9374-e9991f2b08c2/69287728-a689-4799-9d8e-7b26e1b542d1-master.m3u8https://video.igem.org/videos/embed/aZtyRpLNBG2FuVNDzoGrrm889092023-10-23T15:28:44.998ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5Ji8HbAQuLheZaCmjM2R2Ghttps://video.igem.org/lazy-static/thumbnails/a8e32929-5b37-46cb-bec6-1b0e35091444.jpgNUS-Singapore: Optimised Technique For swiTch Engineering and Ranking (OTTER) (2023) - Team Prese...**Title:** Optimised Technique For swiTch Engineering and Ranking (OTTER) **Description:** RNA switches are robust and versatile tools in various fields including bioproduction, drug delivery, and disease detection. However, the difficulty in designing the switches hinders its wide applications. A key reason that makes the design process challenging is that the interaction between RNAs are hardly predictable using currently models/tools. Furthermore, there lacks available quality RNA data for developing the models. In our project, we sought to develop OTTER, a tool that is designed to predict effectiveness of RNA switches and develop a new high throughput workflow (SIGNAL) and novel experimentally validated bioparts to facilitate the generation of large RNA library and data. To this end, we built new bioparts and focus on developing deep learning to model RNA-RNA interactions coupled with generative model to suggest RNA switch designs for OTTER. We use RNA switch systems such as STARs and Toehold as our model system. [Wiki](https://2022.igem.wiki/nus-singapore)https://static.igem.org/peertube/streaming-playlists/hls/264c59fd-8017-4a55-860d-2cb2380a8d7e/a8c3e7ee-9806-4b18-9071-4590dc166992-master.m3u8https://video.igem.org/videos/embed/5Ji8HbAQuLheZaCmjM2R2G78302652023-10-23T15:36:01.990ZYES2023 Team PresentationsNOhttps://video.igem.org/w/eiCZiRd7XAAbJVLxUYVRgwhttps://video.igem.org/lazy-static/thumbnails/6ad7dfd4-7c17-4ff9-8433-672c7df273b3.jpgTU-Dresden: DRIP: Diatom-based Remediation using Immobilized Proteins in Thalass... (2023) - Team...**Title:** DRIP: Diatom-based Remediation using Immobilized Proteins in Thalassiosira pseudonana **Description:** Water quality is threatened by micropollutants and microplastics. Since conventional wastewater treatment plants are not able to effectively remove these micropollutants, they end up in nature where they can exert negative effects on various organisms. Our project aims to tackle the challenge of micropollutants by developing a diatom-based remediation platform. In using a method called live-diatom silica immobilization (LiDSI), we were able to engineer the diatom Thalassiosira pseudonana to express and in vivo immobilize the enzymes laccase and FAST-PETase into its silica cell wall for the very first time. These enzymes are able to degrade major pollutants: pharmaceuticals like diclofenac and sulfamethoxazole, and PET-microplastic, respectively. To ensure biological safety in a future application, cells are lysed and the biocatalytically active biosilica isolated to then be employed as a filter material. Being based on a unicellular, phototrophic organism, our remediation platform may present a renewable, cost-efficient and scalable solution to micropollution. [Wiki](https://2022.igem.wiki/tu-dresden)https://static.igem.org/peertube/streaming-playlists/hls/6bbd3dca-b6b4-4e79-bdd5-b68b646c1270/148d8578-3811-486c-aa8b-e0cb43fbf468-master.m3u8https://video.igem.org/videos/embed/eiCZiRd7XAAbJVLxUYVRgw85601122023-10-23T16:32:06.953ZYES2023 Team PresentationsNOhttps://video.igem.org/w/sSdizGZKnLV34iB2xucKTRhttps://video.igem.org/lazy-static/thumbnails/90405df5-604b-4e70-bf66-ac363cdff07c.jpgWageningenUR: An Innovative Approach Towards Combatting Frost Damage in Fruit Trees (2023) - Team...**Title:** An Innovative Approach Towards Combatting Frost Damage in Fruit Trees **Description:** Late spring frost is the greatest climate-related hazard in agriculture. Climate Change causes early flowering in plants, making them more susceptible to frost damage. In the spring of 2017, $ 3,3 billion worth of crops were lost due to a single frost event in Europe. And unlike the flowers, this problem will only grow With our genetically engineered bacterium, PseuPomona, we restore the flowering time of fruit trees. This helps flowers remain in their buds, protecting them against frost damage. We foresee that further work in the line of our research will not only help farmers protect their crops against the challenges of climate change but also introduce a new synthetic biology tool for agriculture, to be used by future researchers and iGEM teams. [Wiki](https://2022.igem.wiki/wageningenur)https://static.igem.org/peertube/streaming-playlists/hls/d990602f-c407-4e70-a10f-eba01305b163/c46e4291-ede1-4db9-aec7-7b6ad2f13553-master.m3u8https://video.igem.org/videos/embed/sSdizGZKnLV34iB2xucKTR4850372023-10-23T18:11:36.525ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5Fs1bkiGaohQ7sqsr1YZx2https://video.igem.org/lazy-static/thumbnails/b4034654-6fea-4b03-abfb-6d9117b8b3f4.jpgIOANNINA: IRIS: A novel cancer therapeutic approach combining Photodynamic Thera... (2023) - Team...**Title:** IRIS: A novel cancer therapeutic approach combining Photodynamic Therapy and Bacteria Mediated Tumor Therapy **Description:** Addressing the global burden of cancer, and especially solid tumors, which account for approximately 90% of cancer cases worldwide, we propose IRIS: Unleashing the light within. IRIS is a novel therapeutic approach merging Photodynamic Therapy and Bacterial Mediated Tumor Therapy, two promising methods employed in the battle against cancer. By utilizing E.coli, a facultative anaerobic bacteria species, we specifically target the nutrient-rich hypoxic regions of solid tumors and express the necessary genes for an efficient therapy. Overexpression of four genes from the hem family leads to the accumulation of 5-ALA, a precursor for the photosensitizer PpIX. Subsequently, rhtA, an exporter also expressed by IRIS, transports 5-ALA into cancer cells, resulting in the accumulation of PpIX. The PS molecule reacts with oxygen, generated by human catalase even in hypoxia, and 410nm light, generated by the interaction of Rluc8 and methoxy-e-coelenterazine. This dynamic interaction results in ROS production, achieving cancer cell cytotoxicity. [Wiki](https://2022.igem.wiki/ioannina)https://static.igem.org/peertube/streaming-playlists/hls/25e6962d-8717-4037-ba0c-1abd11d3bdeb/545d907a-75b9-4d96-9c96-e3eb5b3bd3a6-master.m3u8https://video.igem.org/videos/embed/5Fs1bkiGaohQ7sqsr1YZx28900372023-10-23T18:25:34.189ZYES2023 Team PresentationsNOhttps://video.igem.org/w/sSUBMfQAKg45tGuzNjvnfshttps://video.igem.org/lazy-static/thumbnails/c4e3f20f-37e7-49e9-9a2f-c8f747084c9d.jpgHS-China: A one-pot isothermal Cas12-based assay for the sensitive detection of ... (2023) - Team...**Title:** A one-pot isothermal Cas12-based assay for the sensitive detection of COPD **Description:** Chronic obstructive pulmonary disease (COPD) is a prevalent respiratory disorder characterized by progressive lung function decline and is a leading cause of mortality worldwide. Early and accurate diagnosis of COPD is crucial for effective management and intervention strategies. In this project, we aim to utilize the diagnostic potential of miRNA biomarkers, specifically miR223 and miR1274a, coupled with the reverse transcription polymerase chain reaction (RT-PCR) method. Studies demonstrate that the expression levels of miR223 and miR1274a are significantly altered in patients with COPD compared to healthy controls. Moreover, the RT-PCR-based detection of these miRNAs exhibited high sensitivity and specificity for COPD diagnosis. HS_China used miR223 and miR1274a as non-invasive biomarkers for the early detection and monitoring of COPD, providing an avenue for improved clinical management and personalized treatment strategies. [Wiki](https://2022.igem.wiki/hs-china)https://static.igem.org/peertube/streaming-playlists/hls/d9a93850-6da3-4825-8c40-23f6f69f2de2/5a019797-61df-4591-bf3e-b15a442017ce-master.m3u8https://video.igem.org/videos/embed/sSUBMfQAKg45tGuzNjvnfs8990202023-10-23T18:31:10.960ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bXeTWt7Zs9izjbWrgNGyGuhttps://video.igem.org/lazy-static/thumbnails/463df922-d2d3-4c1c-8c27-508de24837db.jpgBielefeld-CeBiTec: ASTERISK - Advanced Sequencing of Tumor markers Enabling mRNA... (2023) - Team...**Title:** ASTERISK - Advanced Sequencing of Tumor markers Enabling mRNA-based Intraoperative Sensing and Killing **Description:** Cancer persists as one of the deadliest diseases of all time. The survival rate of patients with glioma, a type of brain cancer, is extremely low and intraoperative diagnostics is considered to be one of the key factors in increasing patients chances. Our project ASTERISK combines intraoperative diagnostics via Nanopore sequencing with mRNA treatment. For our targeted therapeutics, we introduced the innovative DART VADAR technology to the iGEM community. To facilitate use in a broad range of iGEM projects, we provide our composite part ASTERISK and our software DVSensor for automated design of new DART VADAR systems. We are aware of the unique challenges of cancer treatment including limited resources for sufficient patient information. This is why we created the children s book as a reliable resource that can help explain the concept of brain cancer to children of all abilities and ages. [Wiki](https://2022.igem.wiki/bielefeld-cebitec)https://static.igem.org/peertube/streaming-playlists/hls/58b1db7b-c057-4403-bc1d-7954ec3f5e6c/37b77ad8-6269-4b31-b842-14dc7e6ee7ac-master.m3u8https://video.igem.org/videos/embed/bXeTWt7Zs9izjbWrgNGyGu8990712023-10-23T18:40:21.139ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1XWnQ5w3tSxXbpSbKm48Exhttps://video.igem.org/lazy-static/thumbnails/094a3119-c0d6-46e2-aa3f-cdb8173ad049.jpgREC-CHENNAI: RECOVER: Revolutionizing CO2 Capture And Isobutanol Production By E... (2023) - Team...**Title:** RECOVER: Revolutionizing CO2 Capture And Isobutanol Production By Engineered E.coli. **Description:** The world confronts a critical climate crisis due to surging anthropogenic greenhouse gas emissions, mainly carbon dioxide (CO ), predominantly originating from fossil fuels, accounting for nearly 90% of CO emissions. Urgent action is imperative to safeguard the environment for future generations. Team REC CHENNAI is committed to combating climate change through Project RECOVER. The project targets CO emissions by deploying an advanced hybrid carbon capture and biofuel production system. It involves creating an innovative exhaust gas recovery system, efficient CO capture technology, and a biosystem utilizing engineered E.coli K12 for isobutanol production within a ship-compatible reactor. The engineered E.coli strain is designed to express four recombinant proteins: PRK and RuBisCO for CO fixation, and KIVD and ADHA for isobutanol production. Through the seamless integration of cutting-edge hardware technology, we are establishing efficient, scalable systems to provide sustainable, technically sound solutions for addressing the climate crisis. [Wiki](https://2022.igem.wiki/rec-chennai)https://static.igem.org/peertube/streaming-playlists/hls/07cf6b00-4799-4b91-a11f-2c82760f74cf/47be22d6-a8a5-46ab-9084-8ca631af49b0-master.m3u8https://video.igem.org/videos/embed/1XWnQ5w3tSxXbpSbKm48Ex8930392023-10-23T18:47:20.582ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cTbSyZHuWakkBB6dyTk9Ybhttps://video.igem.org/lazy-static/thumbnails/0655d366-a7e2-49cf-8f2a-aca280ad03b2.jpgAshesiGhana: Revolutionizing Lithium Prospecting and recycling in Ghana: The Bio... (2023) - Team...**Title:** Revolutionizing Lithium Prospecting and recycling in Ghana: The BioLith Solution **Description:** The process of detecting and extracting lithium currently involves extensive, environmentally damaging mining practices, consuming significant time, resources, and leading to landscape destruction and water pollution. Furthermore, the disposal of lithium-ion batteries poses a waste management challenge, with Ghana grappling with e-waste dumping. BioLith seeks to address these critical issues by implementing bacteria-based technologies for efficient lithium detection, and recycling, aiming to minimize the environmental impact and promote responsible lithium resource management. We accomplish this through our innovative multifunctional biosensor, able to detect the presence of lithium, and one of its pathfinder element Arsenic. We use the protein expression data to create a deposit probability graph, which allows our potential clients to plan an eco-friendly mining activity. To incorporate circular economy principles we also designed an approach to bio-recycle Lithium from spent batteries Together, we envision a future where lithium extraction is efficient, environmentally conscious, and socially beneficial. [Wiki](https://2022.igem.wiki/ashesighana)https://static.igem.org/peertube/streaming-playlists/hls/603a2856-008c-4be5-b9dc-500ca0aef982/6713be68-662f-4c5e-afcc-bde4ae25cf47-master.m3u8https://video.igem.org/videos/embed/cTbSyZHuWakkBB6dyTk9Yb8760312023-10-23T18:55:04.173ZYES2023 Team PresentationsNOhttps://video.igem.org/w/iigKpYbVhXycuynapUaFnkhttps://video.igem.org/lazy-static/thumbnails/7a0feae9-af37-4c41-8cd7-3e66c3b7d0bb.jpgIIT-Madras: Synthopedia (2023) - Team Presentation [English]**Title:** Synthopedia **Description:** The absence of many genetic and regulatory libraries in unconventional chassis makes building genetic circuits and assemblies extremely difficult. There is an emerging need to explore new chassis which may be naturally adapted to unique traits or metabolic pathways. Lactococcus lactis (L. lactis) is one such Generally Regarded As Safe (GRAS) organism that produces a range of products. Since the ability to fine-tune gene expression forms a cornerstone for the design and operation of genetic circuits, our project intends to construct and test a library of synthetic 5 Untranslated Regions (UTR) containing Ribosome binding sites (RBS) in L. lactis. Creating a well-characterized library of RBS sequences would enable the rational engineering of this bacterium towards increased yield of products. We have also built Synthopedia, a user-friendly web tool based on a machine-learning model that features tools for RBS Rate Prediction and Optimization. [Wiki](https://2022.igem.wiki/iit-madras)https://static.igem.org/peertube/streaming-playlists/hls/8c14b4e8-5b4c-48c0-a8c2-ae13c8fe5219/3c3b93ba-7d68-414d-a3a2-52958a552874-master.m3u8https://video.igem.org/videos/embed/iigKpYbVhXycuynapUaFnk8570472023-10-23T19:01:46.338ZYES2023 Team PresentationsNOhttps://video.igem.org/w/eTVwAQwPokfJRZ7wieKPBohttps://video.igem.org/lazy-static/thumbnails/a47d6e87-e269-4c17-adee-b4cb58e7da6e.jpgRPTU-Kaiserslautern: CYPurify - The Solution to Pollution (2023) - Team Presentation [English]**Title:** CYPurify - The Solution to Pollution **Description:** Water is the foundation for all life. However, the integrity of our waters is far from a reality. While society is aware of the pollution caused by oil and plastic, there is far less awareness of the ever-increasing amount of chemicals being introduced and leaking into groundwater, rivers, and lakes. There, they threaten the ecosystem on both a small and large scale. We, the team CYP Purify are taking action to protect our valuable water resources. Cytochrome P450 enzymes (CYPs) with their infinite diversity and their special activities against xenobiotics are a marvelous tool for this purpose. We want to produce these highly complex enzymes in our chassis Chlamydomonas reinhardtii and thus create a whole-cell system, which effectively and sustainably degrades various pollutants from the environment, such as the estrogen derivative estradiol. To tackle all kinds of pollution we generated a library of 5 CYPs for functional expression in Chlamydomonas. [Wiki](https://2022.igem.wiki/rptu-kaiserslautern)https://static.igem.org/peertube/streaming-playlists/hls/7086b8ef-721a-4982-abab-05b0694b4548/e1b5d0f0-24c3-4aa8-b55b-b1a7db69b426-master.m3u8https://video.igem.org/videos/embed/eTVwAQwPokfJRZ7wieKPBo8000322023-10-23T19:11:45.003ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ogHcofWgmZfbEQcqMa1ft4https://video.igem.org/lazy-static/thumbnails/2be3c195-2527-412c-a8da-52177aaef0f7.jpgIIT-Delhi: Bioremediation of River Yamuna: Removal of organometallic compounds u... (2023) - Team...**Title:** Bioremediation of River Yamuna: Removal of organometallic compounds using biosurfactant **Description:** The Yamuna River, a crucial water source in India, faces alarming pollution levels, with a shocking 75% of contamination stemming from a 22 km stretch in Delhi. The main culprits behind this pollution are textile industries and car workshops, discharging hazardous organometallic compounds. Extensive research has revealed a critical flaw in current bioremediation systems: their inability to effectively eliminate toxic organometallic compounds, known to be more harmful than other metal forms. In response, we present an innovative solution called Lichenysin a biosurfactant that forms micelles, effectively trapping and facilitating the effortless removal of these compounds. Through the implementation of synthetic biology, our goal is to engineer a modified version of E. coli capable of producing Lichenysin. This approach not only addresses the limitations of existing bioremediation systems but also mitigates concerns regarding potential pathogenicity associated with the native strain. [Wiki](https://2022.igem.wiki/iit-delhi)https://static.igem.org/peertube/streaming-playlists/hls/b45a985d-5578-48f0-862a-3038668cde49/5f922503-6d87-4671-a8e1-1908fa5e132b-master.m3u8https://video.igem.org/videos/embed/ogHcofWgmZfbEQcqMa1ft48780202023-10-23T19:15:53.386ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vtmEfk4UU7cN2apSuVSVPzhttps://video.igem.org/lazy-static/thumbnails/365f00e8-227e-440d-a3c9-3a19df4f5bc3.jpgBUCT: NephroWiz (2023) - Team Presentation [English]**Title:** NephroWiz **Description:** BUCT focuses on helping many patients with chronic kidney disease (CKD), and it is our team's top priority to help them alleviate the pain and improve the quality of life. We sincerely hope to provide them with effective help! We take the genetically engineered E. coli nissle 1917 as the carrier, hoping to reduce the content of creatinine and urea in patients through intestinal exudation in the form of probiotics, and generate non-toxic polyglutamic acid and the nutrient sarcosine. At the same time, BUCT also deeply carries forward the spirit of volunteers and humanistic care, popularizes the professional knowledge of kidney protection to more and more people while designing treatment plans, and deeply hopes to help more people! [Wiki](https://2022.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/eeaad5b2-a157-4967-8ad6-ed844c38cddb/f9567581-2316-4dd5-9f55-f211bad225ed-master.m3u8https://video.igem.org/videos/embed/vtmEfk4UU7cN2apSuVSVPz8890212023-10-23T19:24:11.888ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7BPoBb7hEvuhHxNGZjfgSYhttps://video.igem.org/lazy-static/thumbnails/e0520fc4-3b29-4ef1-9585-876cb4351b68.jpgHamburg: transFERRITIN - because we want to transfer it in! (2023) - Team Presentation [English]**Title:** transFERRITIN - because we want to transfer it in! **Description:** Multiresistant pathogens are a rapidly emerging threat in our modern world. The World Health Organisation projects that by 2050, antibiotic resistances claim up to 10 million lives annually. A driving force behind antibiotic resistances is the overuse and inappropriate application of antibiotics. With transFERRITIN, we tackle this problem. We provide a solution with an effective and selective drug-delivery system based on human iron transport protein ferritin. With cell-penetrating peptides, that can transport proteins across almost any membrane, fused to every ferritin subunit, we can penetrate pathogens with ease. Additionally, we add highly specific nanobodies to the surface of our container, using click chemistry. Furthermore, all components can be exchanged. This allows a swift adaption to every patient s needs. transFERRITIN could pave the way for a new generation of highly selective and effective drug-delivery systems. [Wiki](https://2022.igem.wiki/hamburg)https://static.igem.org/peertube/streaming-playlists/hls/359711a2-d9f8-4cbc-b2ab-8e708c4f7098/edc36823-9e1d-4735-b1be-969b9dfafbe0-master.m3u8https://video.igem.org/videos/embed/7BPoBb7hEvuhHxNGZjfgSY88457652023-10-23T19:31:19.299ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pVcUzJQYfAWLmuQkVnJs6Uhttps://video.igem.org/lazy-static/thumbnails/57e0a533-1eec-4b64-8b9e-aaa20ed9f5ca.jpgRUBochum: Breaking -Lactams - Biosensors for Antibiotics (2023) - Team Presentation [English]**Title:** Breaking -Lactams - Biosensors for Antibiotics **Description:** Multidrug-resistant bacteria are one of the major threats to humans nowadays. These pathogens can result from misuse, overuse and improper disposal of antibiotics and can lead to higher health care costs, longer disease progression and higher mortality. To prevent the emergence of multiple antibiotic resistances, antibiotics must be detected and deactivated. Since beta-lactam antibiotics are among the most used antibiotics, we aim to detect them. There are many different biosensors, but they require time-consuming and complex sample preparation and incur high costs. Therefore, we develop a low-cost and easy-to-use whole-cell biosensor. We chose Bacillus licheniformis as the host cell because it possesses a chromosomally encoded beta-lactamase gene induced by beta-lactam antibiotics. A green fluorescent protein is fused to the beta-lactamase for optical detection. The incorporation of the GFP into the chromosome is done by homologous recombination. The amplification of the gene fragments was successful but further work must be done. [Wiki](https://2022.igem.wiki/rubochum)https://static.igem.org/peertube/streaming-playlists/hls/c1aff259-b035-4d4d-9ece-9bc0b1ce20be/7ea1b8ad-0534-40cf-b309-f052eeac6ac1-master.m3u8https://video.igem.org/videos/embed/pVcUzJQYfAWLmuQkVnJs6U8210212023-10-23T19:39:15.766ZYES2023 Team PresentationsNOhttps://video.igem.org/w/niN2DXncevhG23X8vzEDgYhttps://video.igem.org/lazy-static/thumbnails/30349290-7651-4433-b088-363e1701dda1.jpgSMS-Shenzhen: Nucleic Acid Detection Platform Based on CRISPR System (2023) - Team Presentation [...**Title:** Nucleic Acid Detection Platform Based on CRISPR System **Description:** CaPtuRE is an integrated pathogen detection platform that leverages CRISPR/Cas technology, addressing current deficiencies in pathogen testing with a focus on speed and specificity. In response to the COVID-19 outbreak, we have pioneered aerosol sample collection from public events, aiming to integrate CaPtuRE into outbreak forecasting for a comprehensive approach. This platform offers versatility by detecting a range of pathogens and enhancing testing capabilities. To refine the efficiency of pathogen testing, we've developed a machine learning model, the Support Vector Machine, which optimizes primer performance during the RPA process, significantly improving efficiency. We've also streamlined the amplification and detection processes into one tube to ensure accurate results. Through our custom machinery, we've designed and continually improved integrated machines, particularly in aerosol collection and automation, all in pursuit of our ultimate mission to protect public health; CaPtuRE continuously inspires us to find the Cause, and get PREpared. [Wiki](https://2022.igem.wiki/sms-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/ac8bec0a-851c-4019-8666-2c7975482732/25cd721a-3fc4-4718-ac8d-820241fbfdce-master.m3u8https://video.igem.org/videos/embed/niN2DXncevhG23X8vzEDgY9000242023-10-23T19:46:14.697ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2Cxw6yuLQsEcMSn1QrZeLphttps://video.igem.org/lazy-static/thumbnails/895ea459-6288-41c4-bfec-ef7fe2bf5483.jpgTaipei-KCISLK-V1: Worm Out Clots (2023) - Team Presentation [English]**Title:** Worm Out Clots **Description:** We applied synthetic biology to address cardiovascular diseases in Taiwan a pressing issue accounting for 22.5% of deaths among the elderly aged 65 or above. Through research, we found that lumbrokinase, an enzyme extracted from Lumbricus bistamus, holds promise in dissolving fibrin in thrombi, which are responsible for blood clotting and strokes. However, there were two issues: the high cost and moral implications of current lumbrokinase markets, as well as medication non-compliance and high-fat dietary habits among elderly patients with cardiovascular diseases. To address the limitations of current lumbrokinase production methods, Worm Out Clots aims to establish improvements in two aspects: probiotic platform and industrial production. We hope to develop an innovative production pathway that improves sustainability, while preventing mass killing of earthworms. Besides, developing a probiotic platform to address problems the elderly in Taiwan faced by creating an automated, in-vivo probiotic platform integrated with lumbrokinase. [Wiki](https://2022.igem.wiki/taipei-kcislk-v1)https://static.igem.org/peertube/streaming-playlists/hls/0d3356ad-c023-45f9-aac0-2af8deb4d8db/4e95d718-7c12-458b-b04f-7784c12cf6ba-master.m3u8https://video.igem.org/videos/embed/2Cxw6yuLQsEcMSn1QrZeLp8480742023-10-23T19:54:34.968ZYES2023 Team PresentationsNOhttps://video.igem.org/w/3iWx4gYq87QHhvpzAfMa8ehttps://video.igem.org/lazy-static/thumbnails/08e501bd-e766-4aac-8f88-7852cf75a26f.jpgJapan-United: saffrocure:Innovative Approaches to Depression Treatment (2023) - Team Presentation...**Title:** saffrocure:Innovative Approaches to Depression Treatment **Description:** Worldwide, over 320 million people suffer from depression, leading to economic losses of over $18.4 billion in Japan alone. While treatments and medications exist, there's insufficient focus on prevention and everyday mental health care. To address this issue, we're leveraging saffron, a flower cultivated in Japan for centuries. Saffron contains three antidepressant compounds, which we aim to produce using synthetic biology in E. coli. These compounds will be incorporated into affordable cookies to support effective mental health. Additionally, we've developed an innovative approach to overcome regulatory constraints on genetically engineered organisms. We've successfully disrupted the chromosomes of E. coli, halting their growth safely. This technology is applicable to most bacteria, offering a groundbreaking solution for various iGEM projects. 'Saffrocure' is a groundbreaking project that revolutionizes depression prevention and treatment through synthetic biology while also enhancing the practicality of implementing synthetic biology-based ideas in society. [Wiki](https://2022.igem.wiki/japan-united)https://static.igem.org/peertube/streaming-playlists/hls/12b387b3-4415-4f6a-a246-d9746924a7cf/c5298044-79b6-44d5-8221-0f6874044e61-master.m3u8https://video.igem.org/videos/embed/3iWx4gYq87QHhvpzAfMa8e889011852023-10-23T20:29:23.656ZYES2023 Team PresentationsNOhttps://video.igem.org/w/nCsoGErf86UoMN7LF1zvxKhttps://video.igem.org/lazy-static/thumbnails/55b1ac50-360a-4aa8-b46e-160b6e74c113.jpgShanghai-SDG: Drosophila Sentry: A visible monitoring system for heavy metal pol... (2023) - Team...**Title:** Drosophila Sentry: A visible monitoring system for heavy metal pollution **Description:** We aim to develop a convenient and inexpensive visual monitoring system for heavy metal pllution by constructing transgenic Drosophila. We inserted MTF-1 gene driven by UAS and Hid gene driven by MRE in Drosophila S2 cells, respectively. These two transgenic Drosophila lines interbreed and the offspring with both MTF-1 and Hid genes cross with the Drosophila line with genotype GMR-GAL4 or Vg-GAL4 or ptc-GAL4 which express GAL4 during eye/wing development. In this way, we constructed three Drosophila lines with genotype UAS-MTF-1;MRE-Hid/GMR-GAL4, UAS-MTF-1;MRE-Hid/Vg-GAL4, and UAS-MTF-1;MRE-Hid/ptc-GAL4 which express MTF-1 during eye/wing development due to the GAL4-UAS system. In response to heavy metals in the environment, MTF-1 is activated, binds to MRE and activates Hid expression, leading to apoptosis in the developing eyes/wings. Thus, in the first generation within 5-10 days, these lines show abnormally small eye/wing sizes observable by naked eyes. The system can be used for heavy metal pollution monitoring. [Wiki](https://2022.igem.wiki/shanghai-sdg)https://static.igem.org/peertube/streaming-playlists/hls/af26f3ac-e044-4404-905e-5bca019cc8cd/6b676d56-a177-4383-abf8-f0122bff869a-master.m3u8https://video.igem.org/videos/embed/nCsoGErf86UoMN7LF1zvxK8720202023-10-23T20:35:31.758ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hwXztXZU9NnYMaCZvPvwhshttps://video.igem.org/lazy-static/thumbnails/39568a6b-410e-4621-a7b6-eaaceca582e5.jpgLeiden: PHAse Out: Transforming Agriculture with Biodegradable Plastics using Gr... (2023) - Team...**Title:** PHAse Out: Transforming Agriculture with Biodegradable Plastics using Green Methanol **Description:** Every day, we ingest microplastics through the food we eat, posing a major risk to our health. A major part of these plastics comes from agriculture, where plastic-containing fertilizers and mulch films break down and cause pollution. We, PHAse out, want to change this! Our goal is to replace conventional plastics in agriculture with biodegradable alternatives. Most importantly, our approach does not utilize valuable agricultural feedstocks, unlike most other biotechnological approaches. Our project aims to improve bioplastic production using Methylobacterium extorquens AM1, a non-model organism that can grow on green methanol to sustainably produce PHA, a biodegradable plastic. Our journey has involved characterizing constitutive and inducible promoters, increasing PHA production through gene overexpression, employing metabolic models for improved metabolic efficiency, and designing an autolysis system to facilitate extraction. With this project, we have initiated a viable alternative for renewable PHA production. Let s PHAse Out fossil-based plastic together! [Wiki](https://2022.igem.wiki/leiden)https://static.igem.org/peertube/streaming-playlists/hls/85e4c849-b659-4a5b-9cc9-cee339bcdeca/60f794c9-0071-419d-9c10-b9787e7cd0c7-master.m3u8https://video.igem.org/videos/embed/hwXztXZU9NnYMaCZvPvwhs75102832023-10-23T20:43:06.478ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ioMTe1yuN2FTJAKYHtYt6qhttps://video.igem.org/lazy-static/thumbnails/a9ca1be5-5c91-41d5-9028-1fa54054e40f.jpgKorea-HS: Optimizing Cultured Beef Production: Development of Conditioned Media ... (2023) - Team...**Title:** Optimizing Cultured Beef Production: Development of Conditioned Media Enriched with Afamin and Wnt3a Proteins **Description:** Traditional meat production accounts for 57% of the greenhouse gas emissions of the food production industry and results in 70 billion animals slaughtered for food annually. Lab-cultured meat production offers a sustainable alternative but faces high production costs, technical limits, and scale-up challenges. Korea-HS s Afamin-Wnt3a Protein Enriched Conditioned Media addresses the environmental and ethical issues of current traditional and cultivated meat production processes. Our project utilizes producer cells that secrete the recombinant proteins Afamin and Wnt3a to optimize cell growth with more affordable and ethical conditions. Furthermore, through stakeholder interactions, we gained insight into many perspectives surrounding our project s potential. Identifying the low public receptivity of lab-cultured meat, we aimed to promote a positive perception of cultivated meat capable of impactful widespread consumption. Ultimately, we are dedicated to demonstrating a sustainable, ethical, and cost-effective meat production method that tackles current concerns about environmental sustainability and animal welfare. [Wiki](https://2022.igem.wiki/korea-hs)https://static.igem.org/peertube/streaming-playlists/hls/8cd9ff25-f1b0-47c4-b78f-8a177a1fef96/f49edccf-6189-4299-acf2-61b261404cf4-master.m3u8https://video.igem.org/videos/embed/ioMTe1yuN2FTJAKYHtYt6q8160552023-10-23T20:50:31.151ZYES2023 Team PresentationsNOhttps://video.igem.org/w/37sqpYqHwxapV5Dx2fufzihttps://video.igem.org/lazy-static/thumbnails/0a394b02-a93a-479e-8a6c-2c84042de207.jpgUTokyo: SWIFT - Ready for a Swifter Challenge? - (2023) - Team Presentation [English]**Title:** SWIFT - Ready for a Swifter Challenge? - **Description:** Time is of the Essence. Synthetic biology has made remarkable strides in addressing various issues, from environmental to clinical and industrial. However, practical applications have often proven elusive due to the slower pace of biomolecular signal transmission. To effectively harness biological systems for addressing ongoing global challenges, rapid response is essential. 'SWIFT' presents a groundbreaking approach to genetic circuit design, offering the necessary speed and scalability to meet society's evolving needs. It consists of three modules; MESA for detection and signal transductions, protease amplification for rapid and sufficient signal, inducible secretion for quick output of protein. We aim to cope CRS(Cytokine Release Syndrome) for the primary implementation. SWIFT for CRS detects the increase of cytokines in the blood and immediately secrete their inhibitors. In addition, we considered and designed several implementation beyond CRS. With SWIFT, we enables to detect soluble ligands and rapid produce of desired proteins. [Wiki](https://2022.igem.wiki/utokyo)https://static.igem.org/peertube/streaming-playlists/hls/111905bc-aad6-4f79-84fb-78658b25e8a3/6c3e1692-fdb4-4220-912a-1618fe2f59a5-master.m3u8https://video.igem.org/videos/embed/37sqpYqHwxapV5Dx2fufzi9000832023-10-23T17:00:13.540ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rTP2wqfYJjuqLr2A8PaHNNhttps://video.igem.org/lazy-static/thumbnails/c09f39e0-bcdf-40fe-ad04-81455d8c0fb2.jpgMIT-MAHE: CarbanEl (2023) - Team Presentation [English]**Title:** CarbanEl **Description:** MIT-MAHE is focusing on biodegrading triclocarban (TCC), an antimicrobial compound in pharmaceutical and personal care products. Due to its hydrophobicity and chemical stability, it is ineffectively degraded in wastewater treatment plants (WWTPs), resulting in accumulation in the effluent and sludge. Owing to its carcinogenic and hormone disrupting properties, TCC when exposed to the environment as sludge inhibits plant metabolism and harms endocrine functioning in aquatic life. CarbanEl aims to degrade triclocarban into non-toxic byproducts. The aim is to introduce Ochrobactrum TCC-2's TccA gene which can degrade TCC into a chassis which can inherently degrade the toxic chloroaniline byproducts using its natural, existing pathways. We decided to focus our study on P. putida, P. fluoroscens, and A. baylyi, which are all suitable candidates to serve as our chloroaniline-degrading chassis. This will effectively lower the impact of TCC on our environment, locally and globally, in aquaculture, agriculture, and human health. [Wiki](https://2022.igem.wiki/mit-mahe)https://static.igem.org/peertube/streaming-playlists/hls/d1b06137-151e-4e14-bdb4-1ebd6e27be16/47d7b355-3a72-49ac-b070-bd5447934a8b-master.m3u8https://video.igem.org/videos/embed/rTP2wqfYJjuqLr2A8PaHNN8990372023-10-23T17:10:09.394ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ps7tSMsRJbFQkXPoMNv6Dehttps://video.igem.org/lazy-static/thumbnails/041e2e93-303a-4549-a063-6fc378a76240.jpgVITVellore: PETrify: Unbottling the Future Using FAST-PETase-mutated MHETase Com... (2023) - Team...**Title:** PETrify: Unbottling the Future Using FAST-PETase-mutated MHETase Combinations **Description:** To tackle the growing problem of PET bottle accumulation in Indian waste disposal systems and the health hazards leached PET microplastics possess, we adopted a combination approach of FAST-PETases and mutated MHETases to degrade PET plastics. Via in-silico studies, we generated the single and double mutant MHETase (S491A and S196A,T434S respectively). In comparison to the wild type MHETase, they were comparatively more stable. We then transformed these genes into E. coli BL21 for expression studies to check the production of our gene of interest. Gene expression data confirms the production of our stable mutant MHETases for degradation of PET films in combination with FAST-PETases. Our approach will yield the products terephthalic acid and ethylene glycol which can then be cycled back into the industry to promote a more sustainable circular economy. [Wiki](https://2022.igem.wiki/vitvellore)https://static.igem.org/peertube/streaming-playlists/hls/bde78561-8c79-41dc-8a99-31e985675aab/7d8588cc-f89a-414e-8f97-1b9c7a00749f-master.m3u8https://video.igem.org/videos/embed/ps7tSMsRJbFQkXPoMNv6De8950512023-10-23T17:20:07.394ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bS4J9ezRVxS9FRtSZ7voyAhttps://video.igem.org/lazy-static/thumbnails/42809443-920b-43b4-ab59-67ea217611ee.jpgUNSW-Australia: Enzocrete: Cementing Cleaner Concrete Construction with Microbia... (2023) - Team...**Title:** Enzocrete: Cementing Cleaner Concrete Construction with Microbially Induced Calcite Precipitation **Description:** When combating climate change, nothing can be overlooked. The cement industry is vital to modern construction but produces up to 10% of yearly anthropogenic carbon emissions. The burning of limestone for conversion into the cement binding agent calcium oxide produces 90% of total cement emissions. We aimed to develop a microbiologically induced calcite precipitation (MICP) approach to bypass calcination of limestone and substitute an engineered enzymatic pathway to produce calcite crystals. Our project identified and transferred urease and carbonic anhydrase enzymes from Helicobacter pylori to Escherichia coli a bacterial species with greater affinity for industrial production of the MICP enzymes. In addition, we developed a cost-effective biofoundry, integrating multiple robotic devices, providing precision for assaying diverse enzymatic and environmental conditions at high-throughput. Ultimately, we envisage an optimised genetically modified bacterium for industrial MICP-based concrete production that reduces the need for carbon emissions by millions of tonnes each year. [Wiki](https://2022.igem.wiki/unsw-australia)https://static.igem.org/peertube/streaming-playlists/hls/57f8df27-11ca-40d0-a9e3-de72a67d1902/5ffbc5fe-22fa-4f59-a8e0-ee9293d15420-master.m3u8https://video.igem.org/videos/embed/bS4J9ezRVxS9FRtSZ7voyA8940162023-10-23T17:33:53.915ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ovRSnSFtmsuXohJM8ePcKThttps://video.igem.org/lazy-static/thumbnails/4ed68a21-0d8f-4350-94f6-778421d1f0d8.jpgTecMonterreyGDL: Building a FRET-based sensor for in vivo monitoring of emerging... (2023) - Team...**Title:** Building a FRET-based sensor for in vivo monitoring of emerging contaminants in water **Description:** In Mexico, water pollution affects over 50% of water bodies leaving millions of people without safe drinking water. Part of the problem are emerging contaminants such as pharmaceuticals and heavy metals. Due to their low concentrations, these have been historically ignored, however, due to recent studies, linking them to toxicity markers in living organisms, they are now recognized as a significant environmental threat. Currently, there are no straightforward methods for detecting and quantifying emerging contaminants. Our project aimed to create an affordable, user-friendly and efficient biosensor to detect emerging contaminants in a biological platform (E. coli BL21). A device to measure the fluorescence signal, as well as the prototype for an application which allowed users to view the results was also created. Here we show our results using a FRET-based system to detect erythromycin and cadmium. Additionally, we carried out various activities with fellow students, children, and the elderly. [Wiki](https://2022.igem.wiki/tecmonterreygdl)https://static.igem.org/peertube/streaming-playlists/hls/b6545a3a-14ff-4d97-af3a-cad27ac40345/c6c8da9b-79f8-4b3a-a48d-228778db7fb3-master.m3u8https://video.igem.org/videos/embed/ovRSnSFtmsuXohJM8ePcKT6730342023-10-23T17:40:42.147ZYES2023 Team PresentationsNOhttps://video.igem.org/w/jEjRHpeBE7jYiJh8SPhbEZhttps://video.igem.org/lazy-static/thumbnails/c490154a-84ac-4f73-90ac-d67117d8caa4.jpgUCAS-China: NOX: Neo-quOrum sensing-based Xpression biosensor platform (2023) - Team Presentation...**Title:** NOX: Neo-quOrum sensing-based Xpression biosensor platform **Description:** Trace substance detection remains challenging, especially regarding food safety and medical care in daily practice. While it is possible to carefully examine substances with great accuracy in labs, it s usually too costly or inconvenient to conduct it in everyday life. We chose BPA and bile salts as examples, demonstrating the significance and the necessity of employing portable and scalable biosensors in daily situations. This year, we designed and proposed NOX (Neo-quOrum sensing-based Xpression biosensor platform) to provide a highly compatible and robust platform with impressive performance, using synthetic biology to construct an artificially organized signaling cascade. Chimeric receptors are assembled for optimal compatibility, and the orthogonal quorum sensing module is responsible for luminescence, optimized by modeling. Our hardware collects and processes the signal, which is readily accessible for further analysis. We also provide a portable and scalable device with a meager cost, aiming to offer civil detection covering multiple uses. [Wiki](https://2022.igem.wiki/ucas-china)https://static.igem.org/peertube/streaming-playlists/hls/971e6158-d778-4215-9015-a59d8ec1b5ad/aabbfab3-39a5-463e-bd7a-2f66aca2e291-master.m3u8https://video.igem.org/videos/embed/jEjRHpeBE7jYiJh8SPhbEZ88601772023-10-23T17:50:52.666ZYES2023 Team PresentationsNOhttps://video.igem.org/w/r7afRiv4pPUgYwDiWkvFf6https://video.igem.org/lazy-static/thumbnails/9f5c93a7-a649-42e5-9ff5-3510143679ac.jpgNAU-CHINA: BISTRO Biological Sensing, Tracking, and Reduction of Ochratoxin A (2023) - Team Prese...**Title:** BISTRO Biological Sensing, Tracking, and Reduction of Ochratoxin A **Description:** This project focuses on detecting and degrading ochratoxin A (OTA) in red wine, a popular global beverage. OTA is a toxic mycotoxin widely present in wine, posing health risks. By using specific binding and amplification techniques, the detection module enables convenient OTA detection. The degradation module utilizes probiotics to create a functional polymer network with the OTA-degrading enzyme M-CPA, effectively converting OTA into non-toxic compounds. Overcoming challenges like wine's pH and alcohol content, this project ensures safe and efficient OTA degradation in wine. We offers a novel approach for sensing, tracking, and reduction of ochratoxin A, which holds significant importance for wine safety. [Wiki](https://2022.igem.wiki/nau-china)https://static.igem.org/peertube/streaming-playlists/hls/cb50a223-7c6b-418a-8f96-d79f8e0b8ae5/67927e49-216f-4299-ac5a-a816d845d908-master.m3u8https://video.igem.org/videos/embed/r7afRiv4pPUgYwDiWkvFf68760792023-10-24T03:45:32.483ZYES2023 Team PresentationsNOhttps://video.igem.org/w/h2pAMgBAhepGUDbaG8TBn2https://video.igem.org/lazy-static/thumbnails/01b2b672-cdf5-447a-9a04-aace26cf12f5.jpgGEMS-Taiwan: Cure-All Reef: An all-inclusive biofilm-based probiotic delivery sy... (2023) - Team...**Title:** Cure-All Reef: An all-inclusive biofilm-based probiotic delivery system for sustainable coral conservation. **Description:** Coral reefs are vital for marine ecosystems and economies, but climate change is causing rapid decline through coral bleaching and disease outbreaks. Probiotics aids corals in fighting environmental stress, but efficient delivery methods aren't available. Cure-all Reefs aims to utilize a coral spray with a unique biofilm-based mechanism for better probiotic adhesion, increasing absorption. We integrated two quorum-sensing mechanisms to regulate biofilm growth and minimize bacteria dispersion beyond the application site. Furthermore, we've developed an autonomous underwater vehicle (AUV) for precise delivery. An extensive entrepreneurship plan combines the coral spray and AUV together and outlines a service that incentivizes corporations to increase their blue carbon credit investments, which we hope will lead to increased ocean conservation efforts . Our novel probiotic delivery system and all-inclusive service not only aim to address the lack of existing delivery methods, but also strive for a bluer and more sustainable future. [Wiki](https://2022.igem.wiki/gems-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/81c48192-5a81-4a2b-b642-ed097e6fd957/7f598b4b-0d65-4e9d-bfa6-2a0a01e68bf7-master.m3u8https://video.igem.org/videos/embed/h2pAMgBAhepGUDbaG8TBn284401902023-10-24T03:54:07.794ZYES2023 Team PresentationsNOhttps://video.igem.org/w/wSE2f3gEZGg7iDE4zJZpCdhttps://video.igem.org/lazy-static/thumbnails/f7eeca33-fd14-498a-8459-e9b6af121c82.jpgHarvard: E.CoDROP: Rapid Production of ATPS Droplet-Suspended Cell-Free Extract ... (2023) - Team...**Title:** E.CoDROP: Rapid Production of ATPS Droplet-Suspended Cell-Free Extract Systems **Description:** Research and diagnostic tools for high-throughput molecular detection can typically target only a single analyte or class of analytes at a time. One approach to addressing this shortcoming is suspending cell-free expression (CFE) detection systems in aqueous two-phase system (ATPS) droplets, then spatially assembling different protocell droplets into an assay capable of detecting diverse analytes. However, this approach necessitates costly preparation of cell-free lysates. Thus, we developed E.CoDROP, a novel method for rapidly creating cell extracts within ATPS droplets. To create these droplets, Escherichia coli cells grow to exponential growth phase, pellet and resuspend in Ficoll (10 w/v%), and vortex with 35k PEG (5 w/v%). Within the resultant ATPS droplets, cells lyse, caused by a gene cassette under control of an arabinose-inducible pBAD system. Lysis releases cell contents, including transcription-translation machinery and any plasmid-encoded molecular detection systems. These droplets are then suitable for use in the aforementioned CFE detection systems. [Wiki](https://2022.igem.wiki/harvard)https://static.igem.org/peertube/streaming-playlists/hls/fa04c7a2-e016-4e2a-9203-85d55c73a858/f26afc8b-4f55-4706-b551-b13e6c8f9d54-master.m3u8https://video.igem.org/videos/embed/wSE2f3gEZGg7iDE4zJZpCd9000392023-10-24T04:24:36.351ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pzSL9PdoAy4q78qoBQKkKuhttps://video.igem.org/lazy-static/thumbnails/3f100a97-21f9-4d7a-a462-01b29debbc77.jpgIIT-Roorkee: NeuraSense (2023) - Team Presentation [English]**Title:** NeuraSense **Description:** Our project focuses on the development of a groundbreaking diagnostic method for early Alzheimer's disease detection, utilizing DNA aptamers in saliva samples. This innovative approach offers a non-invasive and cost-effective means of identifying Alzheimer's biomarkers, addressing the critical need for early diagnosis in a rapidly aging global population. By harnessing the unique binding properties of DNA aptamers, we aim to create a highly specific and sensitive diagnostic tool that can detect Alzheimer's-related proteins or genetic markers in saliva. This project seeks to revolutionize Alzheimer's screening by providing a convenient, accessible, and accurate point-of-care solution, with the potential to transform patient outcomes and advance our understanding of this debilitating neurodegenerative disease. Our pursuit aligns with the broader goal of improving the lives of those affected by Alzheimer's and driving forward the field of personalized medicine. [Wiki](https://2022.igem.wiki/iit-roorkee)https://static.igem.org/peertube/streaming-playlists/hls/befd042d-470d-4dc8-9bf6-79164fcef09e/e57c27a1-c9f9-4c8c-9b7b-98b9c6004685-master.m3u8https://video.igem.org/videos/embed/pzSL9PdoAy4q78qoBQKkKu9000592023-10-24T11:57:30.992ZYES2023 Team PresentationsNOhttps://video.igem.org/w/17AEiymZXyx969zTuyjb8Chttps://video.igem.org/lazy-static/thumbnails/03178095-45f8-4956-a2ba-49bacc50c6a0.jpgUGM-Indonesia: Novel Biodevice for Colorectal Cancer Screening using Escherichia... (2023) - Team...**Title:** Novel Biodevice for Colorectal Cancer Screening using Escherichia coli Nissle 1917 with miRNAs as Biomarker **Description:** Colorectal Cancer (CRC) screening is still difficult to access in rural areas even though early screening significantly reduces cancer mortality. We developed a novel screening method by utilizing Loop-Initiated RNA Activator (LIRA) OR Gate system to detect miR-21 and/or miR-92a as early biomarkers of CRC assembled within endogenous pMUT1 plasmid that were engineered into Escherichia coli Nissle 1917 (EcN) probiotic chassis. The modified EcN will then colonize the cancer tissue and will express aeBlue chromoprotein reporter when there is/are biomarker(s), coloring the feces blue. We optimize LIRA through various models including approached ON-OFF metrics, multivariate regression to get the best LIRA structurally, and kinetic model to obtain more expected visible reporter duration stability. In the future, It will be formulated as capsules that can be easily consumed as probiotics, this novel approach will ensure a safer and highly accessible early screening for CRC, especially in rural areas. [Wiki](https://2022.igem.wiki/ugm-indonesia)https://static.igem.org/peertube/streaming-playlists/hls/00ebd2a5-feab-4ff7-ae3b-0a96a0ef36b2/62226f79-5a5f-4750-9be7-c0027775921a-master.m3u8https://video.igem.org/videos/embed/17AEiymZXyx969zTuyjb8C90101252023-10-24T12:05:37.327ZYES2023 Team PresentationsNOhttps://video.igem.org/w/73kwxzLKxw6s2uas4wBxbehttps://video.igem.org/lazy-static/thumbnails/02e932b5-ecbb-43a6-b76d-c733b46f105b.jpgAlma: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/alma)https://static.igem.org/peertube/streaming-playlists/hls/30ea5a6c-2b8f-4059-94c0-1fe4051e1ce5/7b5707dc-fdff-44c9-9056-a0c44c352be6-master.m3u8https://video.igem.org/videos/embed/73kwxzLKxw6s2uas4wBxbe8760412023-10-24T12:13:16.476ZYES2023 Team PresentationsNOhttps://video.igem.org/w/hwKR9Y89V9DJUJAsVotiD5https://video.igem.org/lazy-static/thumbnails/d2bd80c7-2beb-43c8-b33f-aeb461c35f61.jpgMunichBioinformatics: SEPiA - Side-Effects and Polypharmacy interaction Ai (2023) - Team Presenta...**Title:** SEPiA - Side-Effects and Polypharmacy interaction Ai **Description:** Polypharmacy is the simultaneous use of more than five medications. While often necessary for treating multimorbid patients, polypharmacy is associated with a decline in the patient's health outcomes. Polypharmacy presents a complex side effect profile affecting 15% of the general population in the US, rising sharply with age and poor health. Additionally, with increasing life expectancy worldwide, understanding polypharmacy will only become more critical in the coming years. Because more drugs cause an exponential increase in possible drug combinations, systematic laboratory testing is impractical. Computational approaches have only focused on pairwise drug-drug interactions. Therefore, bioinformatics approaches are needed to extend current methodologies to arbitrary numbers of drugs. We use graph-based deep learning algorithms applied to polypharmacy hypergraphs and chemical language models to predict the effects of many drugs interacting. Using this approach, we reached AUROC 0.895 using a pairwise drug-drug interaction dataset from Dacagon and 0.982 for multi-drug polypharmacy interactions. [Wiki](https://2022.igem.wiki/munichbioinformatics)https://static.igem.org/peertube/streaming-playlists/hls/85dd8dbb-3373-436a-9e81-ca2c0917cd02/0203d33d-266d-401d-b7a2-da3e289d377d-master.m3u8https://video.igem.org/videos/embed/hwKR9Y89V9DJUJAsVotiD57490602023-10-24T12:38:36.629ZYES2023 Team PresentationsNOhttps://video.igem.org/w/vdw7jbKq3c7DBkjHxgWHkRhttps://video.igem.org/lazy-static/thumbnails/7c89e6ca-c0ef-45f8-ba44-1be17f403a62.jpgUSP-EEL-Brazil: CBDynamics (2023) - Team Presentation [English]**Title:** CBDynamics **Description:** Cannabidiol (CBD) is a valuable medical compound known for its numerous therapeutic benefits, particularly in treating epilepsy patients. However, in Brazil, its acquisition is shrouded in bureaucratic and legal complexities, primarily stemming from its association with Cannabis sativa. Therefore, this study aims to produce cannabidiolic acid (CBDA), the direct precursor to CBD, using biosynthesis and recombinant gene technology with Saccharomyces cerevisiae yeast. This production involves two essential pathways: the geranyl diphosphate (GPP) one, already present in the yeast metabolism, and the olivetolic acid rote. Consequently, both precursors will be combined in a second reaction to form cannabigerolic acid, which will then be converted into cannabidiolic acid, which can be purified and converted into CBD. Finally, this innovative alternative method seeks to provide a more affordable and less bureaucratic way for patients to obtain CBD, thereby significantly enhancing patient access to this valuable therapeutic compound. [Wiki](https://2022.igem.wiki/usp-eel-brazil)https://static.igem.org/peertube/streaming-playlists/hls/ec98806a-3095-4ca7-81fd-eb59db6d5843/f09f1282-33cc-40eb-be37-a55016767311-master.m3u8https://video.igem.org/videos/embed/vdw7jbKq3c7DBkjHxgWHkR8410212023-10-24T12:53:34.801ZYES2023 Team PresentationsNOhttps://video.igem.org/w/k2zRy3BjzJ1ZRQNHq94NrEhttps://video.igem.org/lazy-static/thumbnails/0d2966cf-f3f3-449f-9c35-32c975c0d4ef.jpgPIHS-Beijing: Optimization of Human Lactoferrin Expression in E. coli With Addit... (2023) - Team...**Title:** Optimization of Human Lactoferrin Expression in E. coli With Addition of Ferric and Ferrous Ions **Description:** Lactoferrin is a very important glycoprotein found namely in mammal lactation and colostrum. It plays crucial roles in iron transportation and immunity of neonates. Currently, possible solutions for children without direct access to human lactoferrin are substitution with other mammalian lactoferrin, extracted human lactoferrin from breast milk and recombinant production using eukaryotes. Each one has their own issues. Prokaryotic production of human lactoferrin has been largely inefficient due to the protein s strong bactericidal abilities. We have expressed human lactoferrin in E. coli in different conditions.We found patterns indicating beneficial effects of the added ions on bacterial survival on top of producing functioning proteins. This points us farther along the way of finding a more efficient and economically friendly method of human lactoferrin production through prokaryotic expression under optimum conditions. [Wiki](https://2022.igem.wiki/pihs-beijing)https://static.igem.org/peertube/streaming-playlists/hls/9a163de6-5e64-4e11-9d52-ebac826dd180/6d837bcb-7e79-434c-9e04-c91f5f800ef4-master.m3u8https://video.igem.org/videos/embed/k2zRy3BjzJ1ZRQNHq94NrE9000152023-10-24T13:06:21.233ZYES2023 Team PresentationsNOhttps://video.igem.org/w/97F7yvjjXwCzeW3NDLH97fhttps://video.igem.org/lazy-static/thumbnails/e5d09354-1b59-48f9-af78-87df2bbaa111.jpgUZurich: LactoBack (2023) - Team Presentation [English]**Title:** LactoBack **Description:** Endometriosis is an underresearched and underdiagnosed disease characterized by growth of endometrial cells outside of the uterus. Recent research points towards a link between inflammation in the endometrium and dysbiosis of the vaginal microbiome. The mission of project LactoBack is, in light of recent discoveries, to implement a microbiome-targeted treatment of vaginal dysbiosis and endometriosis. To raise awareness of endometriosis and microbiome health, talks with professionals in women's health and surveys of patients were organized. Supplemented by computational analysis for gene target identification and optimal lactate production, we engineered an existing quorum sensing system naturally found in Pseudomonas aeruginosa to express guide RNAs for dCas9-based flux redirection. Via conditional control of the system, efficiency is ensured. Our product would act as a live probiotic therapy to support the health of the vaginal microbiome and provide favorable conditions for restoring the native Lactobacillus population in the microbiome. [Wiki](https://2022.igem.wiki/uzurich)https://static.igem.org/peertube/streaming-playlists/hls/41b7ad1c-2a49-4575-9f59-58fd6754da52/9e26a86d-2616-4eee-88e3-3e2d53e35a91-master.m3u8https://video.igem.org/videos/embed/97F7yvjjXwCzeW3NDLH97f9000392023-10-24T13:15:50.834ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fmWRFhpYXjBG5GrSPBBeB8https://video.igem.org/lazy-static/thumbnails/e06257b4-5542-42ff-b41e-9a954bae5d30.jpgRochester: The 3D bioprinting solution: harnessing microbes for sustainable comp... (2023) - Team...**Title:** The 3D bioprinting solution: harnessing microbes for sustainable compound synthesis **Description:** RoSynth engineered a 3D bioprinter for optimizing the production of in-demand plant-derived molecules. Along with medicinal uses, plant-derived molecules have formed the basis of dyes, cosmetics, rubber, waxes, and flavorings for thousands of years. As climate change is impacting the availability of plants, there is an increasing need for local, stable and efficient plant biomolecule synthesis. Our team built the first home-built two-channel 3D bioprinter that is capable of printing our engineered prokaryotic and eukaryotic hydrogel parallel culture system in a cost effective manner. We designed BioBricks for both E. coli and S. cerevisiae to coordinate the synthesis of rosmarinic acid, our proof of concept for printing plant-derived molecules. Additionally, we modeled shapes of 3D-printed biomaterials to optimize the viability and metabolic efficiency of the two microbes by testing various types of hydrogels and factors such as diffusion, shape, and concentration of fluorescence. [Wiki](https://2022.igem.wiki/rochester)https://static.igem.org/peertube/streaming-playlists/hls/744c9f87-8fb0-4312-a157-1adfbe7caed1/5db1f538-e21a-44e8-a72f-4241d48e0964-master.m3u8https://video.igem.org/videos/embed/fmWRFhpYXjBG5GrSPBBeB88980582023-10-24T13:24:39.735ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7AW21vv6gn7cHRoCKC7a6Bhttps://video.igem.org/lazy-static/thumbnails/7640566e-fde8-49e6-a340-50ab4c1550a8.jpgCPU-CHINA: BI-BYE: Solution of Engineering Probiotics for Colorectal Cancer (2023) - Team Present...**Title:** BI-BYE: Solution of Engineering Probiotics for Colorectal Cancer **Description:** Colorectal cancer (CRC) ranks as the third most common cancer worldwide.However, the treatment options for CRC are often expensive and have limited efficacy, causing severe adverse effects among patients.So there is an urgent need for improved treatment options for colorectal cancer.Fusobacterium nucleatum (Fn) is closely linked to the onset and progression of CRC, resulting in unfavorable prognoses.This year, CPU-CHINA has devised a therapy for Fn-mediated CRC. While the majority of current research concentrates on either single cancer- or pathogen-killing approaches, our team has created an engineered Bifidobacterium longum (BL) that can achieve them both simultaneously. We aspire that our approach shall prove beneficial for countless cancer patients and their families in the future. [Wiki](https://2022.igem.wiki/cpu-china)https://static.igem.org/peertube/streaming-playlists/hls/357768d7-ac2e-4d38-ac97-31b0485d7b99/95389334-92f1-4dde-b174-de1b15deb196-master.m3u8https://video.igem.org/videos/embed/7AW21vv6gn7cHRoCKC7a6B8360562023-10-24T13:30:39.459ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uwjNbJpJiMWZYzGejyYzbUhttps://video.igem.org/lazy-static/thumbnails/702ac97d-e8be-4ac1-84b7-be8e1fd5fe87.jpgSorbonne-U-Paris: PseudoDetox (2023) - Team Presentation [English]**Title:** PseudoDetox **Description:** Pseudodeteox project aims to improve the bioremediation of polycyclic aromatic hydrocarbons (PAHs), ones of the most pollutings in soils. We found that Rhamnolipids were part of bacterial surfactants capable of degrading PAHs. We also found that the combination of rhamnolipids and sophorolipdes, two surfactants, increased PAH degradation from 20% to over 90%. Our objective is to modify the bacterium Pseudomonas Putida, a bacterium known to degrade PAHs, in order to produce at the same time Rhamnolipids and Sophorolipids. Biosurfactants will help the bacteria by solubilizing PAHs, facilitating their absorbtions. The rhamnolipid synthesis pathway has already been discovered in the bacterium Pseudomonas aeruginosa, but the sophorolipid pathway is present only in eukaryotic cells such as Starmerella bombicola. The main difficulty will be to transform Pseudomonas putida to produce eukaryotic proteins necessary for the synthesis of sophorolipids. Then, we want to test the effectiveness of PAH degradation by ours transformed bacteria [Wiki](https://2022.igem.wiki/sorbonne-u-paris)https://static.igem.org/peertube/streaming-playlists/hls/e6fbc77a-1dfd-4c50-8904-cf59ede53e5c/c09a8758-269b-4158-a3fe-a5047937f701-master.m3u8https://video.igem.org/videos/embed/uwjNbJpJiMWZYzGejyYzbU8590362023-10-24T13:40:45.079ZYES2023 Team PresentationsNOhttps://video.igem.org/w/62Ag11ft6bQJWAQva28pMZhttps://video.igem.org/lazy-static/thumbnails/a6362f78-8c53-4428-af9d-478568031f31.jpgThe-Kings-School-AU: Solutions for our Soil Engineering Nitrogen Fixing Bacteria... (2023) - Team...**Title:** Solutions for our Soil Engineering Nitrogen Fixing Bacteria with Oxygen Sensing Capabilities **Description:** The overuse of synthetic nitrogen-based fertilisers has caused significant damage to ecosystems across the globe. Our project aims to use synthetic biology to engineer E. coli to produce ammonia naturally, in order to decrease the fossil fuels and nitrogen pollution impact of the fertiliser industry. SOILutions aims to develop an oxygen-sensing feature that allows the bacteria to activate only under low oxygen conditions, increasing the longevity and usability of these engineered microorganisms. With the potential to increase ammonia production in soil, this synthetic biology solution may be the last piece of the puzzle for creating a consistent and far more sustainable supply of fertiliser for farms across the world. A renewable and sustainable way of producing nitrogen-based fertiliser, through our engineered bacteria, ensures the continuous production of modern crops, without causing ecological damage from nitrogen overuse. [Wiki](https://2022.igem.wiki/the-kings-school-au)https://static.igem.org/peertube/streaming-playlists/hls/28b68cb8-de80-4e0e-8193-84f4618bf2af/58209ba4-82b2-484a-b925-fe2e4d0d9e40-master.m3u8https://video.igem.org/videos/embed/62Ag11ft6bQJWAQva28pMZ8000212023-10-24T13:47:15.282ZYES2023 Team PresentationsNOhttps://video.igem.org/w/dihDrRnNiz9WYHFy5dsEWchttps://video.igem.org/lazy-static/thumbnails/a69dacc5-817b-4007-9d77-82a5974bc259.jpgIISER-Tirupati-India: AnthraFelix: Novel probiotic therapeutic for Irritable Bow... (2023) - Team...**Title:** AnthraFelix: Novel probiotic therapeutic for Irritable Bowel Syndrome-Diarrhoea Predominant(IBS-D). **Description:** IBS-D is a prevalent Functional Gastro-Intestinal Disorder (FGID), affecting approximately 11.2% of the global population and 7.5% of Indians. Stress, unhealthy diet, disrupted gut microbiota, and genetic factors contribute to this syndrome. The rise of urbanization and globalization in developing nations has significantly impacted lifestyle, resulting in disturbed sleep, altered diet patterns, and adverse health effects. IBS-D symptoms include diarrhoea, bloating, disturbed sleep, and nausea. Addressing the root cause, AnthraFelix, a groundbreaking probiotic therapy, targets the dysregulation of the human Serotonin transporter (SERT). Extensive research reveals an accumulation of excess serotonin in the colon of affected individuals. AnthraFelix employs synthetic biology to convert excess serotonin into melatonin. This conversion not only mitigates symptoms but also improves overall quality of life. Melatonin, with its analgesic properties, sleep regulation, and positive impact on gut health, emerges as a promising solution, offering relief and enhancing well-being for those suffering from IBS-D. [Wiki](https://2022.igem.wiki/iiser-tirupati-india)https://static.igem.org/peertube/streaming-playlists/hls/639790f4-c797-40ef-bf07-f643797f1d6f/9b70fffa-88ab-42c1-85a3-deaf1d921dde-master.m3u8https://video.igem.org/videos/embed/dihDrRnNiz9WYHFy5dsEWc8840482023-10-24T13:54:16.425ZYES2023 Team PresentationsNOhttps://video.igem.org/w/iyM8NhDH5DopXk3P6bSGwchttps://video.igem.org/lazy-static/thumbnails/a47e3dc6-fae1-4adf-ac4a-9df02972895b.jpgMunich: BEE: B-cell engineering & enhancement (2023) - Team Presentation [English]**Title:** BEE: B-cell engineering & enhancement **Description:** Our project focuses on a novel synthetic biology concept of B-cell engineering. We are genetically engineering B-cells to produce a specific antibody with the aim of using these cells as living and evolving drugs in cell therapy. Our goal is to address the epidemic of neurodegenerative diseases, particularly Alzheimer's, to protect high-risk patients from multi-resistant pathogens, to tackle chronic viral diseases, such as MRSA and hepatitis B virus, and to combat malignant tumors, such as renal cell carcinoma. We are also committed to ensuring that the necessary safeguards are implemented, such as tEGFR depletion factor, iCasp9 kill switch, and more. [Wiki](https://2022.igem.wiki/munich)https://static.igem.org/peertube/streaming-playlists/hls/8e3ef913-68c6-49c0-8088-e0e65a69fec7/344aac9c-6383-47ec-9d98-c0a39cedd651-master.m3u8https://video.igem.org/videos/embed/iyM8NhDH5DopXk3P6bSGwc90001332023-10-24T14:03:18.078ZYES2023 Team PresentationsNOhttps://video.igem.org/w/igAsGM2nzNmeJb4vLbGsi7https://video.igem.org/lazy-static/thumbnails/7c5ee315-679b-43a5-a96a-83054c8a4a4b.jpgSeoul-Korea: Monitro: An innovative nitrate biosensor for the early detection of... (2023) - Team...**Title:** Monitro: An innovative nitrate biosensor for the early detection of eutrophication. **Description:** Our team realized the seriousness of the excessive eutrophication in South Korea. In this project, our team used two reporter genes (GFP, RFP) along with the PyeaR promoter to allow the usage as an Arduino sensor. The red color is controlled by the yeaR promoter, which enables the expression of mScarlet, and the green color is controlled by the amount of mScarlet produced, other polycistronic-arranged repressors and Lon protease. When exposed to nitrate, the yeaR promoter is activated to form the repressor and Lon protease along with mScarlet, and the expression of mVenus is suppressed by the repressor. The mVenus quickly decomposes by the Lon protease, changing the color of the bead into red. The sensor contains the beads that are made by modified E. coli bacteria having chromatic colors green and red, dependent on the amount of fluorescence expressed under UV light. [Wiki](https://2022.igem.wiki/seoul-korea)https://static.igem.org/peertube/streaming-playlists/hls/8bd8c030-c513-4e25-9b64-8c128262c0a8/e54b3694-c7fe-4eac-86b6-6caf88d0633a-master.m3u8https://video.igem.org/videos/embed/igAsGM2nzNmeJb4vLbGsi78970442023-10-24T14:10:55.899ZYES2023 Team PresentationsNOhttps://video.igem.org/w/pAXRPCZcYAR9Kc7hRMm5uchttps://video.igem.org/lazy-static/thumbnails/7fc48d8e-b4b7-4662-a362-fa627a6aac80.jpgSUSTech-MED: Engineered Pseudomonas aeruginosa filamentous phages for biofilm-ta... (2023) - Team...**Title:** Engineered Pseudomonas aeruginosa filamentous phages for biofilm-targeted therapy **Description:** We aim to treat P. aeruginosa biofilms by editing a temperate bacteriophage with genes that affect the c-di-GMP pathway and quorum sensing. P. aeruginosa is a common and dangerous pathogen that forms biofilms, which are resistant to antibiotics and regulated by c-di-GMP and AHLs. We inserted wspF, yhjH, aiiA, and ytnP into the pf4 sequence of PAO1, and verified their effects on biofilm formation. We hope to reduce the harm of P. aeruginosa infections by inhibiting biofilm formation with our engineered bacteriophage. [Wiki](https://2022.igem.wiki/sustech-med)https://static.igem.org/peertube/streaming-playlists/hls/bf23e6d4-cd42-4463-bf5d-16e6773f6983/7e8e0336-f4e2-4ebd-a021-66b501db0cd5-master.m3u8https://video.igem.org/videos/embed/pAXRPCZcYAR9Kc7hRMm5uc8990542023-10-24T14:20:28.507ZYES2023 Team PresentationsNOhttps://video.igem.org/w/jrKsYUNK1TbNxSmedYVTxMhttps://video.igem.org/lazy-static/thumbnails/5a14f7ea-ddd0-4ceb-85ab-097319f8a468.jpgNJMU-China: Breaking the silence of the deep sea: One encounter at 52Hz frequency (2023) - Team P...**Title:** Breaking the silence of the deep sea: One encounter at 52Hz frequency **Description:** Autism spectrum disorder (ASD) is a common neurodevelopmental disorder, and its incidence is increasing in recent years, which brings great burden to social development and medical security. It has been reported that due to genetic and environmental factors, the increased autoimmune antibodies in the brain of ASD patients will attack neurons, resulting in neuron death and disorder of behavior. Therefore, we decided to design small molecule drugs to block autoantibodies to alleviate the symptoms of autism. We screened ferrichrome and protoporphyrin IX that could bind to antibodies in intestinal microbiome small molecule metabolism library. Our experimental group designed the engineered bacteria to produce small molecule blockers through synthetic biological pathways. Our modeling group verified the high efficiency of its blocking antibodies through molecular docking. Our HP group provided safety, ethics and social significance support. We hope our research can provide potential therapeutic medicine for autistic children in the future. [Wiki](https://2022.igem.wiki/njmu-china)https://static.igem.org/peertube/streaming-playlists/hls/955ce062-c253-4306-9f4a-9a3eb76b41e7/5ff159fd-8820-47f6-8875-eab0f9e2ed9c-master.m3u8https://video.igem.org/videos/embed/jrKsYUNK1TbNxSmedYVTxM8980272023-10-24T14:35:42.927ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5RuXy4d128rvw2JeiaTNuBhttps://video.igem.org/lazy-static/thumbnails/a5a4f460-acfb-4153-bda6-6be8b3aa62e4.jpgBIT-China: Lights control iT: Light-induced Controlled Synthesis of intermixed T... (2023) - Team...**Title:** Lights control iT: Light-induced Controlled Synthesis of intermixed Terpenoid **Description:** In the realm of fragrance production, our project, named 'Lights Control iT (intermixed Terpenoid)', introduces an innovative approach to the controllable synthesis of two terpenoids as key fragrance components: santalol and sclareol. Traditional chemical synthesis methods generate substantial industrial waste, posing environmental challenges. To address these issues, we have designed a yeast-based cell factory capable of environmentally-friendly, controllable fragrance production. Our approach leverages the power of light regulation using a photosensitive transcription regulator, EL222, and a specific promoter, PC120. The 450nm light triggers the expression of essential genes for the synthesis of sclareol, while represses those for santalol. This dynamic photoinduction system offers advantages such as operational reversibility, high spatiotemporal resolution, and enhanced production efficiency. Our experiments indicate that our cell factory can potentially produce fragrant bases with precise proportions of santalol and sclareol. This breakthrough promises a more sustainable and flexible future for fragrance production. [Wiki](https://2022.igem.wiki/bit-china)https://static.igem.org/peertube/streaming-playlists/hls/274dd862-6251-4ff9-92c9-e29f3744415b/111f9d6d-bbdc-47f2-b231-94e9dbd9baf7-master.m3u8https://video.igem.org/videos/embed/5RuXy4d128rvw2JeiaTNuB8340622023-10-24T14:27:20.420ZYES2023 Team PresentationsNOhttps://video.igem.org/w/34tKA7ST1MJ9sNPfd8d2pShttps://video.igem.org/lazy-static/thumbnails/81d0d0e9-64da-481e-9cd0-5b102b0b6fbd.jpgWuhan-Hubei-China: Production of high protein straw feed by recombinant Saccharo... (2023) - Team...**Title:** Production of high protein straw feed by recombinant Saccharomyces cerevisiae **Description:** In the context of human and animal competition for food, the cost of food feed continues to rise. In addition, a lot of straw resources are wasted every year. We propose to convert straw into non-food feed to ease economic pressure on farmers and protect food security. Our project created a Saccharomyces cerevisiae that efficiently uses cellulose by fusing and expressing three cellulase genes, effectively converting cellulose into single-cell proteins. Considering that there are also many xylan in the straw component, we purified a high-enzyme active xylanase and optimized the xylose isomerase promoter for efficient xylose utilization. Multi-link interaction finally realizes straw hydrolysis and efficient production of high-quality protein. Our project aims to alleviate the pressure on animal husbandry operations, provide new solutions for optimizing the allocation of social straw resources, and develop new ideas to cope with the food crisis. [Wiki](https://2022.igem.wiki/wuhan-hubei-china)https://static.igem.org/peertube/streaming-playlists/hls/10ae9c71-e39d-44c9-a331-ebf51783025c/d5dd3e67-4f64-48f4-9b0c-670d54808287-master.m3u8https://video.igem.org/videos/embed/34tKA7ST1MJ9sNPfd8d2pS8980202023-10-24T14:42:44.215ZYES2023 Team PresentationsNOhttps://video.igem.org/w/775MyqRYuXnGKBFgDVZRmEhttps://video.igem.org/lazy-static/thumbnails/f9548b49-2468-4032-9143-37a57c884353.jpgWego-Taipei: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/wego-taipei)https://static.igem.org/peertube/streaming-playlists/hls/31703e66-6ba7-460c-8c8b-a6f9d343e02a/27ef56d0-7309-4351-ad2d-829aacc2dd52-master.m3u8https://video.igem.org/videos/embed/775MyqRYuXnGKBFgDVZRmE8590292023-10-24T14:55:51.312ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mkP57jFM3tUCL8PJCgUmmbhttps://video.igem.org/lazy-static/thumbnails/6b84c3fa-8fe2-49f1-8c21-0a1512bd62f3.jpgNYCU-Formosa: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/nycu-formosa)https://static.igem.org/peertube/streaming-playlists/hls/a4bae9cb-f900-4823-82a2-66bc87e05cf2/7b644c2a-b5db-43c3-ab0c-32cda7c864ef-master.m3u8https://video.igem.org/videos/embed/mkP57jFM3tUCL8PJCgUmmb8780602023-10-24T15:10:33.530ZYES2023 Team PresentationsNOhttps://video.igem.org/w/q2VTHbGnV9i5MMC5v69cvShttps://video.igem.org/lazy-static/thumbnails/2c6cec37-1798-41b5-81ac-a62b990a9e72.jpgAIS-China: production of a gentler hair growth medication for those who suffer f... (2023) - Team...**Title:** production of a gentler hair growth medication for those who suffer from hair loss **Description:** This year, our team AIS-China aims at solving the problem of hair loss. Hair loss is a complicated problem which might be induced by various factors, both of physiological and psychological origins. We successfully utilized E. coli through synthetic biology, producing A-KB, a potential substance in treating hair loss, providing the public with a milder, safer, affordable and convenient option for the treatment of hair loss. Throughout our project, we conducted a series of comprehensive HP activities. We engaged in extensive conversations with the public and doctors to ensure our project meets the public's needs and to collect our potential customers, and we also strived to pose our impacts on our community. After this, we initiated a commercial plan to assume how may we implement our thoughts to the reality. [Wiki](https://2022.igem.wiki/ais-china)https://static.igem.org/peertube/streaming-playlists/hls/c2a04890-ca8f-40b8-9d6c-f093b24b4700/83862e30-dbed-4871-a8f1-3d3f6c548037-master.m3u8https://video.igem.org/videos/embed/q2VTHbGnV9i5MMC5v69cvS89502452023-10-24T15:37:24.497ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qRUNCYVBvam4izWe42SNJNhttps://video.igem.org/lazy-static/thumbnails/d6f203a6-190d-420b-8d07-20a6dcd0cff6.jpgSYPHU-China: HER2-Positive Tumor Stalker (2023) - Team Presentation [English]**Title:** HER2-Positive Tumor Stalker **Description:** In 2023, SYPHU-China focuses on targeted therapy for HER2-positive solid tumors. Protein engineering techniques were used to construct chemoreceptor eTlpC that can target tumor microenvironments with high lactate concentration, and ADC(Antibody-drug conjugate) drugs were used as a means to attack tumors. A synthetic biology approach was utilized to ensure the safety of LBP(Live Biotherapeutic Products) drugs using gene circuits to construct population sensing modules and suicide switch modules. Based on the chassis cell E.coli Nissle1917, its genome was edited by CRISPR-Cas9 to make it more suitable to be the chassis cell for this project. The final construction of eCancerKiller that can target the tumor microenvironment and kill HER2-positive tumors using ADC drugs.We have also created some useful synthetic biology elements, such as sensitive, high-intensity promoters that sense lactic acid. [Wiki](https://2022.igem.wiki/syphu-china)https://static.igem.org/peertube/streaming-playlists/hls/c9535072-b9d9-4e0e-a5a7-544d3ea44f2a/9dd416fc-2557-4cac-87f8-eb9653526956-master.m3u8https://video.igem.org/videos/embed/qRUNCYVBvam4izWe42SNJN8800422023-10-24T15:23:39.609ZYES2023 Team PresentationsNOhttps://video.igem.org/w/cmi6eFyMioKL88dx4yv27Zhttps://video.igem.org/lazy-static/thumbnails/e4e6ebe7-d44c-4752-96b4-3c2dbf02f631.jpgNJTech-China-A: Improved PETase for filter cloth recovery through protein engine... (2023) - Team...**Title:** Improved PETase for filter cloth recovery through protein engineering **Description:** The pollution caused by filter cloth made primarily of plastic has become increasingly severe in recent years. Exploring green and environmentally friendly plastic recycling methods is a pressing social need. We have conducted a project focusing on two core scientific issues: the soluble expression of PETase and the enhancement of IsPETase's degradation activity. This project combines techniques such as protein engineering, molecular docking, and molecular simulation. We have provided two effective methods for the soluble expression of PETase, which are the localization expression in the periplasmic space and co-expression with molecular chaperones. By introducing mutations and adding hydrophobic structural domains, we have improved the degradation efficiency of wild-type IsPETase by 6-fold. Our model and wet laboratory strategies can serve as a reference for future teams interested in protein engineering-related projects. [Wiki](https://2022.igem.wiki/njtech-china-a)https://static.igem.org/peertube/streaming-playlists/hls/5be9eed3-8d48-408e-b2ec-8078dddb2ce1/4a66bdaa-9fb4-4b32-a593-2caccfb3b4dd-master.m3u8https://video.igem.org/videos/embed/cmi6eFyMioKL88dx4yv27Z8120322023-10-24T15:54:56.476ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rrCgGFommRpH5rZV8twcjVhttps://video.igem.org/lazy-static/thumbnails/d916d922-f823-449c-852b-d3d182b448d6.jpgNCHU-Taichung: Reviving Pollination: The PQQ lighting up Bee's Dilemma. (2023) - Team Presentatio...**Title:** Reviving Pollination: The PQQ lighting up Bee's Dilemma. **Description:** This project aims to investigate the impact of PQQ on bees in hopes of improving the current pollination crisis. PQQ, a highly valuable antioxidant, has been shown in previous research to enhance mitochondrial biogenesis, metabolic rate, and memory. However, feeding such an expensive compound to insects is impractical. In this iGEM project, we have introduced PQQ biosynthetic pathway into Bacillus subtilis natto. We then fed the supernatant to our model honeybees, Apis mellifera. In brief, we used electroporation to transform the plasmid and treated the bees with the supernatant. For the bees, we adopted a buffet-style feeding approach on the first day with PQQ, followed by continuous monitoring of the bees subsequently. The results revealed that the effects of PQQ on bees disappeared by the third day post-feeding but could be restored through refeeding. Furthermore, the experiments showed that PQQ significantly improved the flight capabilities and memory of the bees. [Wiki](https://2022.igem.wiki/nchu-taichung)https://static.igem.org/peertube/streaming-playlists/hls/ce0869d2-ad13-4d16-b5af-94b058d58c55/ffcd8dfe-69a5-4e98-908a-00662c4d0885-master.m3u8https://video.igem.org/videos/embed/rrCgGFommRpH5rZV8twcjV8580212023-10-24T16:05:52.777ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ajYCwzNPnpA4jXkxaJnVvEhttps://video.igem.org/lazy-static/thumbnails/0f8a8145-f041-4a30-9479-21a0a58947c3.jpgHUBU-China: Zero-carbon SAF:Leading the future of sustainable Flight (2023) - Team Presentation [...**Title:** Zero-carbon SAF:Leading the future of sustainable Flight **Description:** The extensive use of fossil fuels has raised the level of CO2 in the atmosphere and led to a global temperature increase, bringing about catastrophic impact on global climate. Our project Zero-carbon SAF focuses on the environmental-friendly sustainable aviation fuel (isobutanol) production through the synthetic biology technology. In this project, we constructed different bioparts and modules for isobutanol production in Zymomonas mobilis. And to increase the isobutanol yield in Z. mobilis, we also employed the heterologous Calvin cycle pathway coupled with a synthetic carboxysome for CO2 concentrating and CO2 fixation. Thus, the CO2 released during the isobutanol fermentation process was absorbed and further transformed into isobutanol again, achieved an efficient zero-carbon isobutanol generation. We hope the microbial isobutanol in this project would finally replace the chemical fossil fuel to the maximum, making the flight to a sustainable future. [Wiki](https://2022.igem.wiki/hubu-china)https://static.igem.org/peertube/streaming-playlists/hls/4b8888ff-1708-47c1-ac02-509255c78bf4/327219c5-c768-4763-ae92-2e364d8d3f33-master.m3u8https://video.igem.org/videos/embed/ajYCwzNPnpA4jXkxaJnVvE10290522023-10-24T15:46:39.907ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2KfwqgLDEboUHjP2GPa9pvhttps://video.igem.org/lazy-static/thumbnails/374aec80-ce64-40ad-9795-ffa9d1dfde0d.jpgKeystone: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/keystone)https://static.igem.org/peertube/streaming-playlists/hls/0e231260-75fd-48e7-ae1f-922f705b108b/23139370-06e8-44da-9380-ae8a1d82f5cf-master.m3u8https://video.igem.org/videos/embed/2KfwqgLDEboUHjP2GPa9pv8530262023-10-24T16:14:52.060ZYES2023 Team PresentationsNOhttps://video.igem.org/w/p2SiQGHDaVEGbNunURp1ophttps://video.igem.org/lazy-static/thumbnails/619bac3d-c8a0-4896-9d3c-ddb953266413.jpgZJU-China: Flora Sentinel - A Novel Biopesticide based on self-amplifying RNA (2023) - Team Prese...**Title:** Flora Sentinel - A Novel Biopesticide based on self-amplifying RNA **Description:** ZJU-China proposes the use of synthetic biology to develop a biological, plant-based pesticide. They have designed a long stranded RNA that can be translated into an immunoprotein, providing targeted resistance against specific pathogens. Inspired by RNA vaccines, they have equipped it with a platform for movement and amplification within plant tissue. ZJU-China believes that clean and effective biopesticides will play a significant role in the future, protecting crops and ensuring abundant harvests. [Wiki](https://2022.igem.wiki/zju-china)https://static.igem.org/peertube/streaming-playlists/hls/ba84efa4-1eba-449d-9fe2-708eb67e3e7b/65e7d662-2347-464d-91ea-24037b7a0dd0-master.m3u8https://video.igem.org/videos/embed/p2SiQGHDaVEGbNunURp1op87606752023-10-24T16:25:45.691ZYES2023 Team PresentationsNOhttps://video.igem.org/w/bu6y96cN2gQjs3KTpKWQvVhttps://video.igem.org/lazy-static/thumbnails/c07046bf-d980-4bef-a888-31708d25de42.jpgBarcelona-UB: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/barcelona-ub)https://static.igem.org/peertube/streaming-playlists/hls/54e7a290-3de5-476f-aa52-a68c0fb6a547/8d4d3f0a-193e-4d50-9bc5-f7820b7f8978-master.m3u8https://video.igem.org/videos/embed/bu6y96cN2gQjs3KTpKWQvV8900972023-10-24T16:34:12.451ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uJYp3evtLv6eSMmgsFp48Ehttps://video.igem.org/lazy-static/thumbnails/d0f3f834-7edb-43fd-89ac-babe0a706f1f.jpgMcMasterU: HelmiGuard: Using Phage-Based Technology to Fight Neglected Diseases (2023) - Team Pre...**Title:** HelmiGuard: Using Phage-Based Technology to Fight Neglected Diseases **Description:** Everyone deserves to be healthy, but not everyone has that privilege. Billions of people from poverty-stricken regions suffer from Neglected Tropical Diseases (NTDs), caused by pathogens found in their communities. At HelmiGuard, we have created an oral vaccine to help forge a path to hope for two of the deadliest NTDs: echinococcosis & cysticercosis. Using adeno-associate virus phage (AAVP) technology - a filamentous bacteriophage modified to interact with human cells - we hope to target and destruct the larvae in the small intestine, before they can grow and spread. Specifically, we plan to utilize an RGD-4C peptide motif to interact with alpha integrin receptors found on dendritic cells within the Peyer's Patches. By doing so, we are not only improving patient outcomes, but also working to break the cycle of hopelessness & poverty that these diseases create. HelmiGuard is more than a vaccine - it is a beacon of hope. [Wiki](https://2022.igem.wiki/mcmasteru)https://static.igem.org/peertube/streaming-playlists/hls/e8bfe078-7f3e-42fa-99a0-0d8037bfcf30/82d059c2-00fa-472a-92a7-0c216a572113-master.m3u8https://video.igem.org/videos/embed/uJYp3evtLv6eSMmgsFp48E9140632023-10-24T16:43:44.438ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4huFiXCqomx9uMBfC8k1PXhttps://video.igem.org/lazy-static/thumbnails/98379db3-b029-45ef-8e64-bfedbeca9cc4.jpgUSP-Brazil: Strep-by-Strep (2023) - Team Presentation [English]**Title:** Strep-by-Strep **Description:** Our current project is called St(r)ep by St(r)ep . Streptomyces are a type of bacteria that are very important for human health, as they produce almost half of all the antibiotics used today, but much of their potential is not exploited because the genes responsible for producing these compounds are encrypted in their DNA. The goal of the project is to optimize strategies for activating known encrypted genes and identifying new genes of interest. To test our ideas, we are working with a Brazilian bacterium, isolated from the soil of Olinda in the 1960s, Streptomyces olindensis, to obtain in large quantity a drug candidate called Cosmomycin D, with great bactericidal and also antitumor activity. Our project aims to expand the use of Streptomyces as a platform for future metabolic engineering projects, and to contribute to developing new strategies to combat antimicrobial resistance and cancer. [Wiki](https://2022.igem.wiki/usp-brazil)https://static.igem.org/peertube/streaming-playlists/hls/1a98fd55-f4aa-4345-8e77-3e753e6ae5c5/2056128b-76b5-4dd8-ae1e-1bbceb2fb986-master.m3u8https://video.igem.org/videos/embed/4huFiXCqomx9uMBfC8k1PX9000482023-10-24T16:53:18.756ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qDJi8Ld5YSrpi3bq2e4VXfhttps://video.igem.org/lazy-static/thumbnails/70ae2198-e795-4085-8c1a-1bfb184a3aa0.jpgSHSBNU-China: SynLivPump: Harnessing Synthetic Biology for the Development of Ti... (2023) - Team...**Title:** SynLivPump: Harnessing Synthetic Biology for the Development of Titin Protein Fiber-Enhanced Artificial Heart Valves **Description:** Our team ventured to combat the prevalent global challenge of heart valve diseases, affecting millions and demanding innovative, cost-effective solutions. Traditional solutions, biological or mechanical, present significant drawbacks, including limited durability, risk of rejection, and lifelong anticoagulation therapy. Our novel approach employs synthetic biology to leverage the Titin protein's outstanding mechanical properties, aiming to synthesize superior heart valve materials to enhance bio-compatibility and mechanical resilience. Drawing on cutting-edge research, we engineered E. coli microbes to produce megadalton titin polymers. These polymers, segmented and reconnected via robust protein connectors, would undergo a wet spinning process to form continuous fibers. The fibrous thread have exceptional strength and durability due to -sheet structures, envisioned as the foundation for next generation heart valve materials. Join us in weaving a future where heart valve replacements are not only more effective but also accessible to all, thereby enhancing patient quality of life globally. [Wiki](https://2022.igem.wiki/shsbnu-china)https://static.igem.org/peertube/streaming-playlists/hls/c79fe9ad-71fe-4201-9e3f-7b2b673b11e0/6bcd96bf-2720-45a3-b7ec-6f49ae7b6e24-master.m3u8https://video.igem.org/videos/embed/qDJi8Ld5YSrpi3bq2e4VXf8560342023-10-24T17:00:37.302ZYES2023 Team PresentationsNOhttps://video.igem.org/w/rygkTksYnMpSi8DpU78Wd7https://video.igem.org/lazy-static/thumbnails/9d6658e6-0ed6-4ed0-8576-96d434c032ca.jpgBOKU-Vienna: HormOWN (2023) - Team Presentation [English]**Title:** HormOWN **Description:** 'Towards an Open-Source Biomanufacturing Protocol of Sex Hormones: Addressing Shortages of Testosterone using Synthetic Biology via De Novo Fermentation of Simple Carbon Sources in the yeast Pichia Pastoris' --- Through our Human Practices work, which involves expert interviews with community biotech labs, patient advocacy groups, biomanufacturing leaders, metabolic engineering experts, and IP professionals; engagement with stakeholders, including the Viennese queer community and biohackers; and writing, revising, and conducting a 55-question professional-grade social science survey distributed globally in three languages (English, German, and Chinese); and our Engineering work, which includes designing modular biobricks and comparing metabolic engineering strategies in yeast, we have verified the crystallization of our ideas into a single thought. [Wiki](https://2022.igem.wiki/boku-vienna)https://static.igem.org/peertube/streaming-playlists/hls/cef5b8f6-139e-4831-b42c-6a5f6f99b78e/42bd2290-31c4-4f7e-9f97-27fedb4baf96-master.m3u8https://video.igem.org/videos/embed/rygkTksYnMpSi8DpU78Wd76560252023-10-24T17:05:55.743ZYES2023 Team PresentationsNOhttps://video.igem.org/w/uzZw6P4oyBaftYSYbRKohghttps://video.igem.org/lazy-static/thumbnails/bb3dc7a9-50f8-4024-a791-4cb7428b464b.jpgOxford: De Novo Protein Biosensor for Water Contamination in Limited-Resource Se... (2023) - Team...**Title:** De Novo Protein Biosensor for Water Contamination in Limited-Resource Setting **Description:** The lack of accessible, safe fresh water is becoming more than ever a humanitarian crisis, with its consequences particularly devastating regions with limited resources. To combat this problem, international stakeholders (UNICEF, WHO, etc.) recognise the urgent need for a field water testing tool that 1) offers people rapid, easy readout of water contamination levels to avoid potential health hazards and 2) collects reliable, consistent data for analysing the scale of regional contamination. Our project adopts a synthetic protein biosensor system to constitute a modular sensing platform with bacterial species specificity, the properties of which are purposefully designed to allow maximum deployability in resource-limiting settings. The system is composed of a pair of de novo proteins (LucCage and LucKey), detecting pathogens with a bacteriocin-derived binding domain and giving off a strong luminescence output. We aim to transform water quality control and shine a light on the global water contamination crisis. [Wiki](https://2022.igem.wiki/oxford)https://static.igem.org/peertube/streaming-playlists/hls/e77edfcc-78b8-4f6a-b557-5a1542ecb2cf/22e97f0f-ca6d-44a5-8d97-71e8ac34ca4d-master.m3u8https://video.igem.org/videos/embed/uzZw6P4oyBaftYSYbRKohg89901602023-10-24T17:14:47.970ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mA2hfYS4hLNzfpxv1EMTaNhttps://video.igem.org/lazy-static/thumbnails/603edbce-2f9a-4c63-aab8-4b45a1ac4745.jpgNYCU-Taipei: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/nycu-taipei)https://static.igem.org/peertube/streaming-playlists/hls/a6b6d9b3-f327-4d01-9233-00867a4e3b8c/25a18a4c-b6f9-49c4-bfd5-82d25a451c29-master.m3u8https://video.igem.org/videos/embed/mA2hfYS4hLNzfpxv1EMTaN8840862023-10-24T17:21:07.473ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7oyqzyTnHQ25vwaS2MHDFNhttps://video.igem.org/lazy-static/thumbnails/21366c22-9fd6-43f6-ae74-a7332668bca4.jpgWHU-China: CRISPReporter (2023) - Team Presentation [English]**Title:** CRISPReporter **Description:** CRISPReporter is a novel multi-level DNA memory device we designed in Escherichia coli that utilizes CRISPR-related technology. It can record the temporal order of the signal in DNA for a long duration. When required, the recorded information can be read out by simple molecular biological methods, such as qPCR. For signal input, we choose blue light and relevant promoters as a proof of concept. To optimize the system, we perform directed evolution on the blue light promoter, EL222. For recording, we build up a cascade editing system that consists of a CRISPR Cas9 editing system, a Lambda Red homologous recombination system, and multiple levels of self-target guide RNAs (stgRNAs) with corresponding homologous arms. Guided by our drylab model, our system could operate with high efficiency and high data deciphering activity. Furthermore, we explored several applications in diagnosis and environmental monitoring of our project. We believe in its unlimited potential. [Wiki](https://2022.igem.wiki/whu-china)https://static.igem.org/peertube/streaming-playlists/hls/33bd2d40-145d-49b9-9ab4-732f5303e010/0a3bf452-c310-41c6-9a6b-8d8fc1f01b33-master.m3u8https://video.igem.org/videos/embed/7oyqzyTnHQ25vwaS2MHDFN83802912023-10-24T17:29:40.308ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8EDwwgqSN1TvZWvCLjukwjhttps://video.igem.org/lazy-static/thumbnails/079352b8-7510-4bdf-9174-9e91a0cae624.jpgCalgary: CholesterLock (2023) - Team Presentation [English]**Title:** CholesterLock **Description:** iGEM Calgary presents CholesterLock, a novel proof of concept for an alternative high cholesterol medication. It employs synthetic biology to develop a fusion protein that targets NPC1L1, a lipid transporter protein found in the lining of the small intestines. NPC1L1 is involved in absorption of both cholesterol, and saturated fats which are used in the downstream synthesis of cholesterol. Our fusion protein consists of an Immunoglobulin G fragment, a linker, and a hedgehog family protein fragment bound to cholesterol, which is meant to inhibit NPC1L1 by blocking the site of cholesterol intake, preventing absorption. Side effects of many medications arise when the medication ends up in unintended locations, that is why CholesterLock is designed to be completely contained to the gastrointestinal tract. This innovative approach holds potential to be a highly specific, cost-effective, and low side-effect alternative to traditional medication. [Wiki](https://2022.igem.wiki/calgary)https://static.igem.org/peertube/streaming-playlists/hls/3e155c39-1584-4776-a65d-5eb4fa405d0a/d4762448-b9f1-44d4-8efd-092d23fa69fb-master.m3u8https://video.igem.org/videos/embed/8EDwwgqSN1TvZWvCLjukwj90001162023-10-24T17:45:25.934ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fosJkMcMNuorV3NhNv2EfFhttps://video.igem.org/lazy-static/thumbnails/977df2dc-ce99-4f50-b76d-0dacfa8c4cd2.jpgBonn-Rheinbach: NitraNix: Mitigating Nitrate Pollution through Synthetic Biology (2023) - Team Pr...**Title:** NitraNix: Mitigating Nitrate Pollution through Synthetic Biology **Description:** Nitrate pollution, driven by excessive fertilizer use, poses significant health and environmental risks, particularly in developed countries like Germany. This study explores the development of a novel approach to combat nitrate pollution in groundwater. Current methods, including 'Wasser Bildung' a dilution technique and chemical seequestration of nitrate, have limitations in terms of cost and efficiency. The proposed solution leverages synthetic biology to transform nitrate through a cell-free denitrifying cycle using enzymes found in native denitrifying bacteria. By modifying key cytochromes in the pathway, the goal is to create a cost-effective biocatalytic process. With the rising challenges of population growth and urbanization, this project holds promise in addressing nitrate pollution and its implications for human health and the environment. [Wiki](https://2022.igem.wiki/bonn-rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/7482c6f2-8cbc-486a-8ca7-6b1cdd906d63/50118964-2762-4939-89c9-7598f6fd5663-master.m3u8https://video.igem.org/videos/embed/fosJkMcMNuorV3NhNv2EfF8420182023-10-24T01:59:33.660ZYES2023 Team PresentationsNOhttps://video.igem.org/w/8H4Lf1nL6QJc5PrwDpX1xMhttps://video.igem.org/lazy-static/thumbnails/d3695dff-af72-4936-a0b2-93dec1840d8d.jpgGreatBay-SCIE: A comprehensive approach aiming at minimizing the harmful influen... (2023) - Team...**Title:** A comprehensive approach aiming at minimizing the harmful influences caused by Achatina fulica **Description:** The invasive species Achatina fulica (Giant African Snail) is an infamous culprit triggering a tremendous number of ecological issues worldwide, especially in Shenzhen, China. There are also growing concerns about its primary nematode, Angiostrongylus cantonensis, which results in human lethal diseases. GAStroPurifier is a comprehensive solution aiming at minimizing the harmful influences caused by Achatina fulica, with the six-step solution called ALERTS: ATTRACT snails by -pinene and isoamyl acetate with fruit odors, LOCK snails with our non-injurious hardware, ELIMINATE the parasites Angiostrongylus cantonensis with synthetic cry protein, REASSURE the killing effects by parasite detection with snail's mucus before manual TRANSFER, with a kill SWITCH functioned on genetically engineered yeasts for biosafety guarantee. Through these attempts, GreatBay-SCIE will not only provide our local community with a templated approach for integrated control of invasive species, but also significantly contribute to worldwide agriculture and healthcare from the roots of parasitic infections. [Wiki](https://2022.igem.wiki/greatbay-scie)https://static.igem.org/peertube/streaming-playlists/hls/3e6bc8ba-003d-49a6-9e94-d0bc77a3e75b/63b1a556-974b-4b78-8f53-210642f384a0-master.m3u8https://video.igem.org/videos/embed/8H4Lf1nL6QJc5PrwDpX1xM85201412023-10-24T02:16:53.495ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ofsek8wxf19WyM9kDRg9Jghttps://video.igem.org/lazy-static/thumbnails/56e4779a-6e08-4ffc-bcf4-b9a5e8f81574.jpgHZAU-China: C.A.T: Cat Allergic Therapy (2023) - Team Presentation [English]**Title:** C.A.T: Cat Allergic Therapy **Description:** Feline allergies are a common source of allergens, affecting up to 15% of adults and children and causing symptoms from allergic rhinitis to severe asthma. Feline allergens, Fel d1 (Felis domesticus allergen 1), are mainly produced by the salivary glands, and when cats groom themselves, Fel d1 is transferred from saliva to their hair, and cat dander containing Fel d 1 allergen is then spread to the environment as small airborne particles. HZAU-China team this year designed C.A.T: Cat Allergic Therapy. As a novel therapy for cat allergy, the chassis bacteria, genetically programmed to adhere to the saliva pellicle of cats, produce two single-chain fragment variables (scFvs) and secrete them outside the cell. These scFvs block the immune response caused by the antigen and prevent allergies. The project aims to develop an edible probiotic cat nutriment, which is expected to be used for prevention and treatment of feline allergy. [Wiki](https://2022.igem.wiki/hzau-china)https://static.igem.org/peertube/streaming-playlists/hls/b42da0c4-d601-4109-a228-3f398c4f0afb/b9848c33-5fba-47d9-a931-98b228ab6e88-master.m3u8https://video.igem.org/videos/embed/ofsek8wxf19WyM9kDRg9Jg89501532023-10-24T17:36:26.687ZYES2023 Team PresentationsNOhttps://video.igem.org/w/iebdx7MvFbtJjDBjN1mozzhttps://video.igem.org/lazy-static/thumbnails/0be5fd5b-a06c-413d-9007-12cf0f431b34.jpgNWU-CHINA-A: Super Probiotics: Intestinal Knight Engineered Bacteria Beat IBD (2023) - Team Prese...**Title:** Super Probiotics: Intestinal Knight Engineered Bacteria Beat IBD **Description:** Our project focuses on the treatment of Inflammatory Bowel Diseases ( IBD ) by constructing engineered probiotics . The concentration of reactive oxygen species ( ROS ) is an important factor in the occurrence and development of IBD . We plan to express Catalase ( CAT ) , superoxide dismutase ( SOD ) and Elafin ( an endogenous human protein that inhibits neutrophil-derived serine proteases elastase and protease-3 ) in probiotics Escherichia coli Nissle 1917 . CAT and SOD can relieve inflammation by reducing ROS at the site of the disease , while Elafin is considered to be a protective factor for IBD . So we can relief IBD by means of expressing these three enzymes in probiotics Escherichia coli Nissle 1917 . [Wiki](https://2022.igem.wiki/nwu-china-a)https://static.igem.org/peertube/streaming-playlists/hls/8b825278-ac3d-497b-a8cf-cff8db2e0f93/6f8d1fde-9e09-427d-bfba-3bf584db5be5-master.m3u8https://video.igem.org/videos/embed/iebdx7MvFbtJjDBjN1mozz7930192023-10-24T02:33:21.357ZYES2023 Team PresentationsNOhttps://video.igem.org/w/aAW2FFFwVPFKa51sXSWzryhttps://video.igem.org/lazy-static/thumbnails/6006c8d1-e110-4afd-b81a-e00600956200.jpgASIJ-Tokyo: Project ESPHA: Exploring the Secretion of Polyhydroxyalkanoates (2023) - Team Present...**Title:** Project ESPHA: Exploring the Secretion of Polyhydroxyalkanoates **Description:** As global plastic production reaches a staggering 370 million tons in 2021 and the culture emphasizing hygiene and convenience in Japan continues to drive a prevalence of single-use plastics, emerging bioplastics such as polyhydroxyalkanoates (PHAs) provide a sustainable alternative to conventional petroleum-based plastics. Project ESPHA attempts to explore various secretion methods in order to reduce downstream processing costs of PHA production. Existing research touches upon these systems but fails to fully explore the potential of secretion and remains poorly characterized in literature. Project ESPHA aims to collect comprehensive data and analysis for comparing various secretion systems from extensive literature review. We have compared standard type I and type II secretion systems involving HlyA and TorA secretion tags. In addition, we have characterized the novel use of vesicle nucleating peptides (VNps) for PHB secretion. Our project proposes a model for a less costly, environmentally friendly, and scalable future of PHA production. [Wiki](https://2022.igem.wiki/asij-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/4dc2d52b-acc0-4e31-83ef-59d8d8c732de/78efc747-ed2b-487c-a692-a4749efeaa99-master.m3u8https://video.igem.org/videos/embed/aAW2FFFwVPFKa51sXSWzry7820562023-10-24T02:54:26.399ZYES2023 Team PresentationsNOhttps://video.igem.org/w/dQmWGvzGHopw7SMsHkQ5GPhttps://video.igem.org/lazy-static/thumbnails/afac3c37-bde9-40c7-9bb3-3ce6092d23a4.jpgTsinghua-TFL: A better carbon sequestration factory for improving agricultural p... (2023) - Team...**Title:** A better carbon sequestration factory for improving agricultural productivity and land **Description:** The greenhouse effect and the resulting climate change pose significant challenges to global food security and land availability. Microalgae offer a promising solution to address these challenges. Chlamydomonas reinhardtii, in particular, has unique characteristics that make it valuable. However, one significant challenge of it is its low light energy conversion efficiency. Another area of focus is metabolic flow regulation, specifically in relation to starch accumulation. Understanding and modifying the starch metabolic pathway in Chlamydomonas reinhardtii can enhance the accumulation of this valuable energy storage molecule, making it an ideal feedstock for various applications, such as biofuels, bioplastics, and food additives. Efforts to optimize the carbon dioxide concentration mechanism in Chlamydomonas reinhardtii can also contribute to its efficiency as a carbon dioxide sequestration tool and mitigate greenhouse gas emissions and addressing climate change. [Wiki](https://2022.igem.wiki/tsinghua-tfl)https://static.igem.org/peertube/streaming-playlists/hls/67ee4581-a4d7-4848-9f60-1c960c850d1f/fb59d38d-df81-49ef-8d57-9d9076763207-master.m3u8https://video.igem.org/videos/embed/dQmWGvzGHopw7SMsHkQ5GP8760522023-10-24T03:21:14.175ZYES2023 Team PresentationsNOhttps://video.igem.org/w/kaTH9RFjeQqNFoXSQEnnDqhttps://video.igem.org/lazy-static/thumbnails/747c5af6-905c-4169-99f7-08322d9e3aa6.jpgNTHU-Taiwan: NanoCircDx (2023) - Team Presentation [English]**Title:** NanoCircDx **Description:** Research has demonstrated that early detection can make colorectal cancer highly curable. Therefore, we have decided to develop a diagnostic technology platform for cancer screening using liquid biopsy. With just a blood sample provided by the patient, we can determine the potential presence of colorectal cancer through circular RNA analysis in the serum. NanoCircDx presents clear benefits compared to existing methods for colorectal cancer detection. Our approach needs just one blood sample to evaluate the potential of colorectal cancer, offering: 1. Early identification of the disease. 2. Enhanced accuracy and speed in screening. 3. Greater user acceptance. 4. Minimal invasive procedure. Current circular RNA detection methods are limited to lab settings and lack rapid screening. Our study has great potential to establish swift circular RNA biomarker screening for colorectal cancer. Furthermore, we intend to expand this concept for diagnosing diverse diseases and their related circular RNAs in the future. [Wiki](https://2022.igem.wiki/nthu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/9b3f3212-cea6-4be3-981a-3152568e3e16/8c33d8bb-3388-4ab8-949c-73dd01fedafa-master.m3u8https://video.igem.org/videos/embed/kaTH9RFjeQqNFoXSQEnnDq8890182023-10-24T03:37:36.500ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1RZr9cyBTgPXK7NHxj4szXhttps://video.igem.org/lazy-static/thumbnails/f9f972bf-64cb-4fd3-b822-8fed04ad846a.jpgPTSH-Taiwan: Sarcotreat - An engineered live biotherapeutic product that treats ... (2023) - Team...**Title:** Sarcotreat - An engineered live biotherapeutic product that treats sarcopenia **Description:** Sarcopenia, a progressive muscle disorder, leads to muscle mass and strength loss with age. After 30, muscle decline is steady, reaching up to 50% by 70, resulting in disability and mortality. Globally, 50 million people suffer from sarcopenia, projected to rise to 500 million by 2050. No FDA-approved drugs exist; treatments rely on exercise, diet, and often side-effect-ridden hormone therapy. The sarcopenia treatment market, valued at $2.577 billion in 2020, is projected to hit $4.704 billion by 2030, growing at 6.1% annually. Our vision involves Live Biotherapeutic Products (LBPs), using genetically modified bacteria and yeast to produce muscle-enhancing compounds. These LBPs colonize the intestines, serving as probiotics and influencing metabolism. Recent research underscores the gut microbiota's role in muscle health, making the gut a promising target for sarcopenia therapy. Our LBP holds potential in this context, offering hope for a more effective approach to combating this debilitating condition. [Wiki](https://2022.igem.wiki/ptsh-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/06fad6e0-9991-412a-b34b-fb0f77142091/432835b5-72ad-42b8-908d-bea1dc9e4b9b-master.m3u8https://video.igem.org/videos/embed/1RZr9cyBTgPXK7NHxj4szX6870102023-10-24T04:15:52.662ZYES2023 Team PresentationsNOhttps://video.igem.org/w/swaLh9u9cpvB3Gir1cAEp9https://video.igem.org/lazy-static/thumbnails/ee411505-cf69-49f5-be8e-5eca065d5259.jpgSDU-CHINA: Cell Intelligence (CI) for PHB Production (2023) - Team Presentation [English]**Title:** Cell Intelligence (CI) for PHB Production **Description:** Traditional petroleum-based plastics are accumulated in environment at a very high rate and are harmful to our human being. In order to cope with this crisis, we have decided to increase the production of degradable plastics, and PHB has entered our vision due to its high biocompatibility, high degradation ability, and non-toxicity. However, due to the high production cost, PHB cannot be widely used. We have created a three-layer dynamic regulatory system to achieve automated and efficient production of PHB in E. coli, which we call it 'CI'. We have ascertained the optimal stopping point for achieving the maximum return on investment by modeling. In addition, we have also developed a glucose automatic monitoring and supplementation system based on STM32, which can accurately and timely achieve glucose supplementation. [Wiki](https://2022.igem.wiki/sdu-china)https://static.igem.org/peertube/streaming-playlists/hls/d6c3ef68-0b3c-4433-af5b-fea20b511056/444fc901-1834-4900-94ef-3b002de5a49b-master.m3u8https://video.igem.org/videos/embed/swaLh9u9cpvB3Gir1cAEp98150262023-10-24T04:39:17.005ZYES2023 Team PresentationsNOhttps://video.igem.org/w/9WJgLjqW1dMD8V6CXh1DrYhttps://video.igem.org/lazy-static/thumbnails/9cb03e8b-9bd4-459a-a543-16b1f0abe071.jpgHUBU-SKY-China: Hydrosoilguard- Reduce fertilizer use with hydrogen-rich water (2023) - Team Pres...**Title:** Hydrosoilguard- Reduce fertilizer use with hydrogen-rich water **Description:** Global fertilizer use has reached 200 million tons in 2020, and overuse of fertilizer has led to serious soil and ecological environmental problems. Therefore, there is an urgent need to find alternatives to chemical fertilizers. Studies have shown that hydrogen-rich water has a positive effect on plant growth and is expected to act as a potential 'hydrogen fertilizer' to reduce fertilizer use.We designed an innovative synthetic biology method for producing hydrogen-rich water. Using methanol and NAD+ as substrate, hydrogen-rich water was prepared by cascade catalytic reaction of 4 enzymes. In addition,we designed a protein scaffold to assemble the four enzymes into an artificial multi-enzyme complex, which promoted the substrate channel effect and improved the preparation efficiency of hydrogen-rich water by 2.58 times. [Wiki](https://2022.igem.wiki/hubu-sky-china)https://static.igem.org/peertube/streaming-playlists/hls/486d52e3-2f4d-4de9-af5e-19ee213d9ef6/6ba5a4ea-1eee-4f11-8349-73126059e7b3-master.m3u8https://video.igem.org/videos/embed/9WJgLjqW1dMD8V6CXh1DrY8020262023-10-24T05:11:32.828ZYES2023 Team PresentationsNOhttps://video.igem.org/w/xt8EbkjhMVRkZ1iULupnj9https://video.igem.org/lazy-static/thumbnails/bc10a7a3-c156-4508-b4b7-0c83ce1504f7.jpgFudan: B.HOME - Biofilm Harnessing for Offworld Mankind Establishment (2023) - Team Presentation ...**Title:** B.HOME - Biofilm Harnessing for Offworld Mankind Establishment **Description:** Since the dawn of time, humanity's insatiable curiosity has reached out to the cosmos. With the advent of modern aerospace technology, our ability to explore the universe has expanded, igniting dreams of future space migration. Terrestrial planets, such as Mars, stand as potential destinations for this migration. However, before settlement, we need to reshape 'the second home' to make it habitable. The Martian surface is predominantly covered in barren rocks. A sustainable ecosystem, then, must begin with the transformation of Martian soil. Inspired by Earth's ecological architects, lichens, our project Biofilm Harnessing for Offworld Mankind Establishment (B.HOME), aspires to transmute Martian rocks into fertile soil. Through modular design, we constructed a biofilm with extreme tolerance, autotrophic survival, physical structure, and rock weathering function, marking a bold stride toward a viable homeland on terrestrial planets. [Wiki](https://2022.igem.wiki/fudan)https://static.igem.org/peertube/streaming-playlists/hls/fed5198d-2a2b-4dfa-894b-210bae8f3c68/7436723e-01ac-42f2-bc8e-7b4976a9126f-master.m3u8https://video.igem.org/videos/embed/xt8EbkjhMVRkZ1iULupnj975502792023-10-24T07:16:02.277ZYES2023 Team PresentationsNOhttps://video.igem.org/w/tdg84cJ9mb3fwd5AmWne2jhttps://video.igem.org/lazy-static/thumbnails/66720c22-deda-49f7-9980-a51a87a54dd6.jpgBAID-China: Plasticlear (2023) - Team Presentation [English]**Title:** Plasticlear **Description:** Microplastic ingestion and pollution from bottled water is an increasingly severe issue for humans. BAID - China has developed a tool that can evaluate total daily microplastics ingestion amount and the world's first renewable microplastic filtration device for bottled drinking water, called 'Plasticlear', which consists of a bio-based filtration membrane using synthetic biology methods and a cellulose composite supporting structure whose shape like a bottle cap. All the materials used were totally healthy and eco-friendly. Oat protein and several other additives were chosen based on their absorption performance and cost efficiency. The modified cellulose binding module 3 (CBM3) is used to incorporat oat protein into the bacterial cellulose base membrane, using a triblock protein architecture. Molecular dynamics simulation based on mathmatical and computational models provide insights on experimental data. Through Raman spectroscopy analysis and AI-based counting, we confirmed that the filtration membrane achieves a microplastic filtration efficiency of over 95%. [Wiki](https://2022.igem.wiki/baid-china)https://static.igem.org/peertube/streaming-playlists/hls/dc5cfcf4-47d1-4c30-aeb2-76aae4fde0c8/2e3053c5-74ee-4521-8ca6-9710c051359c-master.m3u8https://video.igem.org/videos/embed/tdg84cJ9mb3fwd5AmWne2j8950762023-10-24T08:04:22.337ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fs1HeQXUBSyTUz26V7rdsthttps://video.igem.org/lazy-static/thumbnails/30e2b48f-66d4-4f20-ae51-df5a01a0d076.jpgSJTU-BioX-Shanghai: The MONCKIE King (2023) - Team Presentation [English]**Title:** The MONCKIE King **Description:** For iGEM 2023, SJTU-BioX-Shanghai targeted residual heavy metal pollution in waters with the Metal-iON-Cleaning and KnItting E. coli (MONCKIE). Inspired by the Monkey King and his hair-made clones, we utilized the engineered outer membrane vesicles (OMVs) instead of E. coli to remove heavy metal ions from water. We are displaying heavy metal binding proteins, OMV recovery modules and cross-linking modules on the surface of the OMVs. Together with our exquisite hardware, the system would be a giant step towards in situ heavy metal ion removal in the natural environment. [Wiki](https://2022.igem.wiki/sjtu-biox-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/7501b7a9-eb99-49a4-8507-ac2e459558d7/d7d9302e-9496-4f07-8713-74e33a6f16c6-master.m3u8https://video.igem.org/videos/embed/fs1HeQXUBSyTUz26V7rdst7960292023-10-24T07:23:58.116ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fnVwHxUr7q4FijJGtsDrj8https://video.igem.org/lazy-static/thumbnails/9e48c05b-9691-4f80-91dd-785f6881ec9e.jpgLZU-CHINA: Intelligent cholesterol management system (2023) - Team Presentation [English]**Title:** Intelligent cholesterol management system **Description:** High-fat diets in the modern world have led to a significant impact on cardiovascular health. Conditions such as hypercholesterolemia, atherosclerosis, osteoporosis, and various cardiovascular diseases resulting from excessive cholesterol intake are of great concern. Current clinical treatments primarily rely on medication to control cholesterol levels, but they come with associated side effects, creating new health risks. To address these issues, LZU-CHINA has developed a probiotic-based cholesterol-regulating system, using an oleic acid inducer as the promoter module. This system introduces three types of genes: IsmA, BCoAT, and BSH, to directly convert cholesterol, influence cholesterol absorption, and promote bile acid excretion. By combining direct and indirect pathways, the system improves the efficiency of cholesterol regulation. Appropriate thresholds of oleic acid concentration activate the expression of these genes. LZU-CHINA aims to achieve precise regulation of cholesterol levels under high-fat diets, thereby preventing hypercholesterolemia and related cardiovascular diseases. [Wiki](https://2022.igem.wiki/lzu-china)https://static.igem.org/peertube/streaming-playlists/hls/746f8c97-f1ff-4e32-95be-557599cf02e7/3ad8d950-d5e5-40c2-81a9-6d132a01cc65-master.m3u8https://video.igem.org/videos/embed/fnVwHxUr7q4FijJGtsDrj89000532023-10-24T07:47:39.969ZYES2023 Team PresentationsNOhttps://video.igem.org/w/fSmH3jdi89hQbXmKhucRy6https://video.igem.org/lazy-static/thumbnails/22fe1ad3-69ba-4553-b67f-8f0bd2372181.jpgCSMU-Taiwan: DECOLOGY: The Perfect Combination of Decolorize and Ecology (2023) - Team Presentati...**Title:** DECOLOGY: The Perfect Combination of Decolorize and Ecology **Description:** Taiwan's textile industry ranks third in the world in terms of output, making it a main global supplier of functional fabrics. However, massive production inevitably brings serious pollution and wastewater. Large quantities of dyes are discharged into river and ocean during the garment making process. To solve this issue, our approach was through the bioremediation method. We combined two proteins (laccase and hydrophobin) with NG Catcher/Tag system. Laccase is able to decompose dye particles, hydrophobin is expected to adhere to the color catcher (our product, expected to be a platform for laccase to act on), and Catcher/Tag system can combine above-mentioned two proteins. We hope our project could be implemented in textile factories, not only breaking down synthetic dyes but also help reduce the amount of wastewater. [Wiki](https://2022.igem.wiki/csmu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/7867e428-7250-4766-bb86-80cb0cc40c61/529eae7f-c6f4-4671-855d-5f8ca0885b2b-master.m3u8https://video.igem.org/videos/embed/fSmH3jdi89hQbXmKhucRy68800122023-10-24T08:27:18.561ZYES2023 Team PresentationsNOhttps://video.igem.org/w/4YTDKNqP11ggPrZaUTJcuwhttps://video.igem.org/lazy-static/thumbnails/8aa09dff-c27e-40dc-92f9-2b399eae61e9.jpgZJUT-China: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/zjut-china)https://static.igem.org/peertube/streaming-playlists/hls/203ce5eb-d477-4c84-8c4e-4327ca042202/eae37ec2-f1e9-4108-b188-4ffb5583e48b-master.m3u8https://video.igem.org/videos/embed/4YTDKNqP11ggPrZaUTJcuw8430462023-10-24T08:56:41.071ZYES2023 Team PresentationsNOhttps://video.igem.org/w/g9S9ZtiQm7eXsoZW4Xjyn6https://video.igem.org/lazy-static/thumbnails/300a9a21-0b02-41bf-b465-62f7db9441ef.jpgKCL-UK: Revolutionizing Colorectal Cancer Detection: Harnessing Gas Vesicles and... (2023) - Team...**Title:** Revolutionizing Colorectal Cancer Detection: Harnessing Gas Vesicles and Ultrasound for Early Diagnosis **Description:** According to WHO, colorectal cancer is the second most deadly and the third most common cancer worldwide. Early diagnosis significantly reduces mortality rates. As a result, the KCL_UK iGEM team embarked on a project aimed at revolutionising diagnostics. Our approach involves genetically modifying an E.coli to sense lactate produced by cancer cells and make gas vesicles, which can be detected by ultrasound imaging. To enable precise regulation of our biosensor, we worked on engineering a lactate-inducible bacterial transcriptional regulation system. We analysed a selection of lactate and other small molecules responsive transcription factors and corresponding DNA operator sequences. The overall combination of different transcription factors and operator sequences allows researchers to efficiently utilise ligand-responsive transcription factors to engineer biosensors for diverse synthetic biology applications. Additionally, we created and deposited on GitHub a software for the identification of palindrome-based operator regions in bacterial genomes. [Wiki](https://2022.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/7ab5f06e-805d-4c30-b42c-3b094b59f567/196b9832-f29e-466f-930b-18f4f785df02-master.m3u8https://video.igem.org/videos/embed/g9S9ZtiQm7eXsoZW4Xjyn66650372023-10-24T09:24:08.612ZYES2023 Team PresentationsNOhttps://video.igem.org/w/gSZ5VxxmE1o7UvDHAp9febhttps://video.igem.org/lazy-static/thumbnails/22846839-a909-4690-a083-c2b253eb1711.jpgQdai: No title (2023) - Team Presentation [English]**Title:** No title **Description:** No abstract [Wiki](https://2022.igem.wiki/qdai)https://static.igem.org/peertube/streaming-playlists/hls/809772bd-ca2d-4263-90a8-d5729ac389a4/027f6f22-43b1-4c3a-8279-f868ce15c9d9-master.m3u8https://video.igem.org/videos/embed/gSZ5VxxmE1o7UvDHAp9feb8990172023-10-24T09:37:46.850ZYES2023 Team PresentationsNOhttps://video.igem.org/w/1DPpjZkurFjcbAgR3BtE82https://video.igem.org/lazy-static/thumbnails/94dd75e4-127b-4fd0-bafb-ec5aba29c7e0.jpgCambridge: B.Max (2023) - Team Presentation [English]**Title:** B.Max **Description:** Cambridge is working on a protective B. subtilis biofilm that can colonise surfaces and resist invasion by pathogenic bacteria. We aim to apply our biofilm in animal farms to reduce pathogen load, so that preventative antimicrobial use in agriculture can be reduced. By over-expressing biofilm-related genes and knocking out sporulation, we created a biofilm that can resist foreign invasion. We have also incorporated an E. coli QseB/QseC two component system into B. subtilis that would allow it to express sfGFP upon sensing a quorum sensing molecule autoinducer 3, which is released by gram-negative pathogens. This pathogen sensor would notify farmers a need for targeted disinfection, so farmers can clean before diseases appear and clean only when necessary, thereby reducing the risk of infections and the cost of labour. [Wiki](https://2022.igem.wiki/cambridge)https://static.igem.org/peertube/streaming-playlists/hls/0547bb6c-f760-4b47-8428-7764c92e4d57/108e2902-2201-4fc2-9506-90a86664ef65-master.m3u8https://video.igem.org/videos/embed/1DPpjZkurFjcbAgR3BtE828920492023-10-24T10:42:03.397ZYES2023 Team PresentationsNOhttps://video.igem.org/w/e6iRdmw4rQiqFfQzvpHD55https://video.igem.org/lazy-static/thumbnails/9c00b579-4797-4e23-8935-60fae512e9f7.jpgUI-Indonesia: Effectivity of Modified Salmonella Typhimurium A1-R Strain Secreti... (2023) - Team...**Title:** Effectivity of Modified Salmonella Typhimurium A1-R Strain Secreting Buforin IIb in Eradicating Cervical Cancer **Description:** As cervical cancer presents threat toward women across the globe, treatment is crucial to suppress the impact. However, as most disease is discovered at advanced stage due to the low rate of early detection, the current treatment can only repress and perhaps even temporarily obliterate cervical cancer. The current treatment employed might not be able to ensure full remission and proper quality of life ahead. In order to solve this obstacle, our team produces a specific drug delivery, utilizing a modified Salmonella Typhimurium A1-R strain that can secrete buforin IIb. The superiority in cancer cell selectivity, natural toxicity toward cancer, ability to induce immune system, and ability to survive hypoxic tumor microenvironment give Salmonella Typhimurium upper hand compared to conventional chemotherapy. Incorporated together, this modified strain can become the next candidate of cervical cancer therapy by complimenting chemotherapy limitation, particularly drug resistance due to the cancer cell cycle and defense. [Wiki](https://2022.igem.wiki/ui-indonesia)https://static.igem.org/peertube/streaming-playlists/hls/6a04855d-8da9-47f0-93b3-41266e5d4958/75b0f013-f39b-4231-b732-a2de577c65b5-master.m3u8https://video.igem.org/videos/embed/e6iRdmw4rQiqFfQzvpHD558750342023-10-24T11:32:10.269ZYES2023 Team PresentationsNOhttps://video.igem.org/w/ddfeoxPB9rCE9fVXcwvKvUhttps://video.igem.org/lazy-static/thumbnails/6e9c5f19-867b-451a-b5d2-8ae993deda68.jpgIISER-TVM: OASYS - A Novel FRET based microfluidic device to aid MDD diagnosis (2023) - Team Pres...**Title:** OASYS - A Novel FRET based microfluidic device to aid MDD diagnosis **Description:** Major depressive disorder(MDD) is a complex clinical syndrome and is predicted to be the leading cause of disease burden worldwide by 2030. OASYS is a novel and objective microfluidic device that utilises FRET-based aptasensors and magnetic nanoprobes to quantify and analyze biomarkers in human peripheral blood serum. We have chosen five putative blood biomarkers correlated to MDD - serotonin, cortisol, Gs alpha protein, and microRNAs 124 & 132. A microfluidic chip takes blood samples as input and runs the assays while the hardware system with fluorometric sensors can detect the fluorescence produced to estimate the biomarker concentrations. OASYS is more than just a diagnostic aid; it can also be a powerful research tool. Tailored to be specific to any biomarker, our tool simplifies data collection from blood samples for population studies. It can also be used to monitor the efficacy of antidepressant treatment in patients by analysing fluctuating biomarker levels. [Wiki](https://2022.igem.wiki/iiser-tvm)https://static.igem.org/peertube/streaming-playlists/hls/62e35bf6-4f82-4fc2-988d-907e75fb125a/3914bdfa-e028-4b6b-8e91-ff53fa8dd12f-master.m3u8https://video.igem.org/videos/embed/ddfeoxPB9rCE9fVXcwvKvU89502422023-10-24T10:00:41.493ZYES2023 Team PresentationsNOhttps://video.igem.org/w/qQyyqDXzVnKemSJDHvGG3Bhttps://video.igem.org/lazy-static/thumbnails/6b91899a-7321-4e01-bd44-da83ecc610cf.jpgNPU-CHINA: EnzyArt scout A smart enzymology based nitrite detector and degrader (2023) - Team Pre...**Title:** EnzyArt scout A smart enzymology based nitrite detector and degrader **Description:** This project aims to develop an enzyme-based electrochemical sensor for highly convenient detection and precise dynamic regulation of nitrite levels. We utilised a recombinant E. coli nitrite reductase enzyme and improved its activity and stability through rational design. In addition, we have optimised the fermentation process for large-scale production of the enzyme preparation. The enzyme immobilised on a gold nano-electrode converts the nitrite concentration into an electrical signal. By measuring the current generated by the electrode, the sample to be tested can be accurately detected. An electronic switch will also be designed to regulate the delivery of nitrite reductase to the sample. In this way, when the current signal exceeds a preset threshold, the switch triggers the delivery of nitrite reductase, thus enabling the harmless treatment of nitrite. The device is characterised by low cost, simple operation and portability, making it suitable for home use, food production and sewage treatment. [Wiki](https://2022.igem.wiki/npu-china)https://static.igem.org/peertube/streaming-playlists/hls/c9231812-4a97-4a0c-8ae5-f982109f0c27/bd2e1544-4bbc-4f75-a9c2-b339cc306405-master.m3u8https://video.igem.org/videos/embed/qQyyqDXzVnKemSJDHvGG3B8260232023-10-24T10:17:21.323ZYES2023 Team PresentationsNOhttps://video.igem.org/w/5gXr1zXXFq3HZ5xuyexgxMhttps://video.igem.org/lazy-static/thumbnails/23a146ad-294a-4b14-ace9-3387ad01fdd7.jpgEstonia-TUIT: BeeYeast: Yeast Engineering to Fight Bee Viral Infections (2023) - Team Presentatio...**Title:** BeeYeast: Yeast Engineering to Fight Bee Viral Infections **Description:** Honey bees play a crucial role as pollinators that is essential for preserving biodiversity. They also yield valuable products such as honey and beeswax, integral to human livelihoods. Unfortunately, honey bee populations are globally declining, influenced by factors like pathogens, climate shifts, and excessive pesticide use. Among these challenges, the Deformed wing virus (DWV), primarily transmitted by mites, is particularly widespread and detrimental, causing the death of millions of bees annually. The Estonia-TUIT team aims to suppress viral protein expression within bee cells by inducing RNA interference response. Our strategy involves genetically modified yeast cells producing short hairpin RNAs, which inhibit DWV gene expression. To deliver these shRNAs into bee cells, we intend to either feed our modified yeast to bees or directly inject shRNA-containing extracts into honeycombs. This approach aims to boost the bee's inherent RNA interference immune response, protecting them from the virus's harmful effects. [Wiki](https://2022.igem.wiki/estonia-tuit)https://static.igem.org/peertube/streaming-playlists/hls/229edf33-eb73-4751-903a-1ef223d5cb77/d7dc728e-dd4d-431c-99b3-acd1cee99a6e-master.m3u8https://video.igem.org/videos/embed/5gXr1zXXFq3HZ5xuyexgxM90005852023-10-24T10:31:12.630ZYES2023 Team PresentationsNOhttps://video.igem.org/w/2h2K9BaB3p2qEJR541JmqMhttps://video.igem.org/lazy-static/thumbnails/8c7c6857-66dd-4b1d-b690-820e11693965.jpgNANJING-NFLSFC: Expression of Cadmium-Binding Proteins & Research on Water Envir... (2023) - Team...**Title:** Expression of Cadmium-Binding Proteins & Research on Water Environmental Heavy Metal Pollution Detection Sensor **Description:** Today, there are still significant challenges in the detection of heavy metal contamination and its remediation. In this research, we propose a novel, portable, paper-based biosensor for the direct detection of heavy metals such as cadmium in polluted water bodies. This sensor consists of a stem-loop structure containing a cadmium aptamer DNA sequence and the expression and regulation genes for a fluorescent protein. The DNA sequence within the stem-loop structure serves as a switch for fluorescent protein expression; when cadmium is present, the fluorescent protein is expressed, and the level of expression can partially reflect the amount of pollutant. The entire detection and protein expression system is on a paper strip, which enables rapid detection and adsorption purification of contaminated water, laying the foundation for further pollutant treatment. [Wiki](https://2022.igem.wiki/nanjing-nflsfc)https://static.igem.org/peertube/streaming-playlists/hls/0a561d1c-bcf2-4ee7-a1f2-817cdba1f15d/f8298f06-8432-4454-b682-638063fe76ee-master.m3u8https://video.igem.org/videos/embed/2h2K9BaB3p2qEJR541JmqM8560372023-10-24T11:01:00.568ZYES2023 Team PresentationsNOhttps://video.igem.org/w/7UtNVyurMz1nqemZcRyeYehttps://video.igem.org/lazy-static/thumbnails/c9228881-c2c9-4104-a3a6-ad44aa0a2191.jpgWIST: Disrupting Quorum Sensing and AHL Signaling to Combat Bacterial Soft Rot D... (2023) - Team...**Title:** Disrupting Quorum Sensing and AHL Signaling to Combat Bacterial Soft Rot Disease in Orchids **Description:** Orchids, renowned for their aesthetic appeal, ecological significance, and economic value, face a severe threat from bacterial soft rot disease caused by Dickeya fangzhongdai. This study focuses on combating the pathogen through the disruption of quorum sensing and AHL signaling. Dickeya fangzhongdai employs plant cell wall degrading enzymes (PCWDEs) and quorum sensing to initiate tissue degradation and disease development. By applying quorum quenching organisms capable of degrading AHL signals, the communication among bacteria can be hindered, effectively disrupting the production of PCWDEs. Additionally, the utilization of the aiiA gene encoding AHL lactonase allows for the degradation of AHL signaling molecules, further halting PCWDE production. This research project aims to protect orchid viability and agricultural productivity by offering a promising approach to combat Dickeya fangzhongdai. The findings have significant implications for orchid cultivation and provide insights into effective disease management strategies in agricultural settings. [Wiki](https://2022.igem.wiki/wist)https://static.igem.org/peertube/streaming-playlists/hls/37eaa55b-0c0d-469c-bc1a-f1408b40c1c1/4177fe11-610a-44d4-80fd-c9ea967402ef-master.m3u8https://video.igem.org/videos/embed/7UtNVyurMz1nqemZcRyeYe8060492023-10-24T11:15:59.207ZYES2023 Team PresentationsNOhttps://video.igem.org/w/mYxc3zDbsDU89W6KwAXSFShttps://video.igem.org/lazy-static/thumbnails/db926ccc-d27f-447d-9373-fd02dbc69942.jpgTU-Braunschweig: Riboswitch-based Quantification of Lithium in Samples using a P... (2023) - Team...**Title:** Riboswitch-based Quantification of Lithium in Samples using a Point-of-Care Test System **Description:** Our project, Li+On-Switch, aims to develop a test system for monitoring lithium levels in patients' samples, which can be easily, safely, and reliably used at home. Lithium preparations are commonly administered to patients with bipolar and act as mood stabilizers. Due to the risk of lithium intoxication, regular monitoring of lithium levels in the blood is necessary. The test system is based on the translational riboswitch <i>nhaA</i>-II for detection and a reporter for quantification, functioning like a genetic ON switch. In response to lithium, the riboswitch will activate the expression of the reporter, indicating whether the lithium concentration has reached a certain level. The test system will provide an excellent alternative to time-consuming doctor visits and laboratory analysis of blood samples, which are required to avoid accidental under or overdosing with lithium. [Wiki](https://2022.igem.wiki/tu-braunschweig)https://static.igem.org/peertube/streaming-playlists/hls/a9dba566-d573-4072-9d92-98bd5ea450c8/701627d6-9064-44cd-8ae2-5de22b3c0f86-master.m3u8https://video.igem.org/videos/embed/mYxc3zDbsDU89W6KwAXSFS90001332023-10-24T11:50:40.415ZYES2023 Team PresentationsNOhttps://video.igem.org/w/obmgtSENQQAZzuxFZddPzdhttps://video.igem.org/lazy-static/thumbnails/4717311f-811f-4d40-b6e3-f2fe56c27293.jpgMcGill: PROTEUS: A CRISPR-Based Approach to Cancer Therapeutics (2023) - Project Promotion [English]**Title:** PROTEUS: A CRISPR-Based Approach to Cancer Therapeutics **Description:** Proteus targets pancreatic cancer at its genetic roots. Our therapeutic has the potential to effectively prevent and cure the nearly 500,000 deaths per annum caused by pancreatic cancer worldwide. Beyond targeting pancreatic cancer, PROTEUS has the potential to be re-engineered for fundamentally any other cancer, or any disease arising from genetic deficiencies, due to its modularity as a general CRISPR-guided genetic tool. [Wiki](https://2022.igem.wiki/mcgill)https://static.igem.org/peertube/streaming-playlists/hls/b39afa67-b0c8-43c1-bea1-4e4bb4c55ba2/14671aec-63c8-4523-b6c4-ebd2a33d0bf7-master.m3u8https://video.igem.org/videos/embed/obmgtSENQQAZzuxFZddPzd120032302023-10-24T15:57:21.801ZYES2023 Project PromotionsNOhttps://video.igem.org/w/we6WUCzY9oGMakGcuR3XLhhttps://video.igem.org/lazy-static/thumbnails/276488ed-3bd2-45a1-9bb0-8353ed11b854.jpgCJUH-JLU-China: Exciting iGEM Journey (2023) [English]CJUH-JLU-China: Exciting iGEM Journey (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/f4c67e5b-581c-4499-bd7f-84efac234864/5169dc2e-2eb2-41d0-8d33-ba4833668cc1-master.m3u8https://video.igem.org/videos/embed/we6WUCzY9oGMakGcuR3XLh1160162023-10-25T12:29:16.483ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ttLsr8fKVmg75MKfHMXyXPhttps://video.igem.org/lazy-static/thumbnails/0d591f7e-fc98-4904-80a2-0737371bace6.jpgTAU-Israel: CtrlC - Controlling Plasmids Copy Number (2023) - Team Presentation [English]**Title:** CtrlC - Controlling Plasmids Copy Number **Description:** Plasmids constitute a key tool in synthetic biology offering a versatile platform for a variety of research and industrial applications. The copy number (CN) is a fundamental feature of plasmids which affects both the production rate of the proteins encoded on the plasmid and the metabolic burden it induces on the host cell. We developed the first user-friendly software for designing the plasmids CN, which will revolutionize the way we work with plasmids. The engine of our tool is a comprehensive machine learning model which is based on thousands of features of the origin of replication (ORI) such as the promoter strength and RNA folding of regulatory elements encoded in the ORI. We also developed a protocol for efficiently manipulating plasmid ORI and demonstrated that our model can predict and design plasmid CN. Furthermore, we established an IGEM-like competition and a new synthetic biology curriculum for Israeli high school students. [Wiki](https://2022.igem.wiki/tau-israel)https://static.igem.org/peertube/streaming-playlists/hls/de8738f1-8d37-4b07-94f8-fa8b5183b22d/dc18d4c2-8150-45c5-ace0-dcd590538af5-master.m3u8https://video.igem.org/videos/embed/ttLsr8fKVmg75MKfHMXyXP88601302023-10-26T17:41:17.358ZYES2023 Team PresentationsNOhttps://video.igem.org/w/9zAVEZLyGgjbrMRhMqP8wrhttps://video.igem.org/lazy-static/thumbnails/b8f221ba-133a-44ff-b38a-19ab57b4704a.jpgTechnion-Israel: UTBye Treating recurrent urinary tract infection using genetica... (2023) - Team...**Title:** UTBye Treating recurrent urinary tract infection using genetically modified Lactobacillus Crispatus **Description:** Recurrent Urinary Tract Infections (UTIs), predominantly affecting women, pose a significant health concern. Current treatments rely on antibiotics, leading to resistance and questionable efficacy. In response, our iGEM project explores the under-researched realm of recurrent UTI treatment. We've identified the microbiome's pivotal role in maintaining urinary tract balance, highlighting Lactobacillus crispatus as a key player. By engineering L. crispatus to compete with pathogenic E. coli, we aim to disrupt the adhesion of uropathogenic E. coli (UPEC) to the epithelial cells, a key step in UTI pathology. Future plans involve adding antimicrobial peptides, targeting specifically UPEC without harming the microbiome. To tackle this challenge, we're developing tools for efficient gene insertion into L. crispatus, emphasizing safety by incorporating arabinose as a kill-switch inducer. Our solution has the potential to not only revolutionize UTI treatment, but also pave the way for future novel microbiome engineering applications using L. crispatus as a chassis. [Wiki](https://2022.igem.wiki/technion-israel)https://static.igem.org/peertube/streaming-playlists/hls/457a2d5e-81e2-4777-a044-b5a0cadd5c59/2622c1e8-a593-449e-a7c0-f9b036dfd7de-master.m3u8https://video.igem.org/videos/embed/9zAVEZLyGgjbrMRhMqP8wr69802342023-10-26T18:18:55.284ZYES2023 Team PresentationsNOhttps://video.igem.org/w/nG7gfP5XkvcdmFFaakdpXKhttps://video.igem.org/lazy-static/thumbnails/66e214d9-56ae-478d-b2f7-52d43691ef06.jpgTeam Plaza PresentationTeam Plaza Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/afa985bb-0a9e-4982-ae91-fa6f9116e84d/5c94065c-f648-4b4a-ad6f-26594de280e8-master.m3u8https://video.igem.org/videos/embed/nG7gfP5XkvcdmFFaakdpXK900052023-11-02T13:24:11.178ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/uWS5AFsnGFj8fWS8PXKJpjhttps://video.igem.org/lazy-static/thumbnails/7b45f5d6-6995-4a63-84ee-4a50db983330.jpgTeam Plaza PresentationTeam Plaza Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/ea68e894-1104-403c-bba7-1ffd48412f78/840d96a6-7e5c-49e4-a2f4-82b4b6e41715-master.m3u8https://video.igem.org/videos/embed/uWS5AFsnGFj8fWS8PXKJpj9000122023-11-02T13:27:32.307ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/chAdqEjnQVC9E941VTxUrmhttps://video.igem.org/lazy-static/thumbnails/b2caf400-a289-4c9e-834a-5e4d7fff42c8.jpgTeam Plaza PresentationTeam Plaza Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/5b6582c6-d82c-43a0-8dcc-c4b6577a03b6/7a770761-f4a3-4e5c-8f22-75771b46b8ee-master.m3u8https://video.igem.org/videos/embed/chAdqEjnQVC9E941VTxUrm9000102023-11-02T15:55:16.572ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/5z1B5CXMJALxJ2NNjqq3H8https://video.igem.org/lazy-static/thumbnails/57ee5509-041e-4e12-9104-4be33b3f665d.jpgTeam Plaza PresentationTeam Plaza Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/250078c7-1410-4a05-99cb-69ac91e89999/f0022d75-7f6f-40c7-b601-11a0d57cf39f-master.m3u8https://video.igem.org/videos/embed/5z1B5CXMJALxJ2NNjqq3H8900082023-11-03T03:35:53.325ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/fG5SSZxXnJfknqoN3tsQdwhttps://video.igem.org/lazy-static/thumbnails/f7a6dcac-7c0e-4d15-ab89-db23e1e42a5a.jpgTeam Plaza PresentationTeam Plaza Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/76f8b29e-f34b-4cd6-90b3-26a8d10d8a16/3324e5c1-b83f-4033-b34c-b8b7ece0777c-master.m3u8https://video.igem.org/videos/embed/fG5SSZxXnJfknqoN3tsQdw900062023-11-03T05:20:47.485ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/893yHeJjV8K4gSvqfjCdLohttps://video.igem.org/lazy-static/thumbnails/65684273-2dae-40e7-8321-3dc397cd32f8.jpgHKGTC: Judging Session (2023)[Wiki](https://2023.igem.wiki/hkgtc)https://static.igem.org/peertube/streaming-playlists/hls/39cf803a-572d-496d-9839-e6cfed5521be/bf7609a9-d450-4923-b80d-d38f923c9581-master.m3u8https://video.igem.org/videos/embed/893yHeJjV8K4gSvqfjCdLo18000652023-11-03T05:40:41.864ZYES2023 Judging SessionsNOhttps://video.igem.org/w/oLChAfidRy8Ct8gDjEPwmnhttps://video.igem.org/lazy-static/thumbnails/3fdddb5e-454d-4e80-9ba7-78fee066b666.jpgPrinceton: Judging Session (2023)[Wiki](https://2023.igem.wiki/princeton)https://static.igem.org/peertube/streaming-playlists/hls/b8642372-a1d5-483f-afbd-e2259e94038d/5a98e4ab-e87b-4a04-83aa-0709c7557df3-master.m3u8https://video.igem.org/videos/embed/oLChAfidRy8Ct8gDjEPwmn18000352023-11-03T06:06:34.309ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8Cfz3JjEDLyXa5ifzCZMyYhttps://video.igem.org/lazy-static/thumbnails/6df9155f-f82a-46b6-889a-c8cc78e606bd.jpgUZurich: Judging Session (2023)[Wiki](https://2023.igem.wiki/uzurich)https://static.igem.org/peertube/streaming-playlists/hls/3dbfb9ac-3643-4854-9447-396b0c5b1d94/1c7ffff9-358f-45f3-993b-3e4eec5e63eb-master.m3u8https://video.igem.org/videos/embed/8Cfz3JjEDLyXa5ifzCZMyY18000252023-11-03T06:16:11.991ZYES2023 Judging SessionsNOhttps://video.igem.org/w/pLFyJAfa2VqbbCafuE1eYhhttps://video.igem.org/lazy-static/thumbnails/027921e8-67ee-419d-a443-9deae6e0ac7c.jpgSJTU-software: Judging Session (2023)[Wiki](https://2023.igem.wiki/sjtu-software)https://static.igem.org/peertube/streaming-playlists/hls/c07f4c27-87dc-4c57-a910-afb8fa511b74/08d21622-feb9-4dfd-8ead-3692f2d8b96b-master.m3u8https://video.igem.org/videos/embed/pLFyJAfa2VqbbCafuE1eYh18000402023-11-03T06:26:14.515ZYES2023 Judging SessionsNOhttps://video.igem.org/w/w6wgSFp9CnmDXWUCgWeNBhhttps://video.igem.org/lazy-static/thumbnails/84c13959-8420-465f-8881-a25455b43fa1.jpgOhio-State-FABE: Judging Session (2023)[Wiki](https://2023.igem.wiki/ohio-state-fabe)https://static.igem.org/peertube/streaming-playlists/hls/f3b78914-a8ce-4da3-9e7c-435a2df1113e/d153aa29-420a-4436-ba9f-6848c487e0db-master.m3u8https://video.igem.org/videos/embed/w6wgSFp9CnmDXWUCgWeNBh1800072023-11-03T06:35:59.344ZYES2023 Judging SessionsNOhttps://video.igem.org/w/waNyPpdY36aaSPJHtSFyJRhttps://video.igem.org/lazy-static/thumbnails/f84877ec-e2b2-4b06-a168-5056177df19f.jpgPatras: Judging Session (2023)[Wiki](https://2023.igem.wiki/patras)https://static.igem.org/peertube/streaming-playlists/hls/f4508d09-eab8-46aa-ba15-3cf7fd22778d/3795aa42-3153-4063-b563-f08745f1c509-master.m3u8https://video.igem.org/videos/embed/waNyPpdY36aaSPJHtSFyJR18000202023-11-03T06:45:53.199ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3z3LFr7ebhQBChz1DJHLnrhttps://video.igem.org/lazy-static/thumbnails/5067bfe9-d753-4650-829d-563e45ffacbe.jpgCity-of-London-UK: Judging Session (2023)[Wiki](https://2023.igem.wiki/city-of-london-uk)https://static.igem.org/peertube/streaming-playlists/hls/14cf876d-7bae-4a1d-825f-809aff081ab3/cb1c89e9-1e5d-4f25-a227-d04264958aa6-master.m3u8https://video.igem.org/videos/embed/3z3LFr7ebhQBChz1DJHLnr18000422023-11-04T07:44:06.007ZYES2023 Judging SessionsNOhttps://video.igem.org/w/x2QKYt9nvUk2qUMAN3nwgchttps://video.igem.org/lazy-static/thumbnails/34320cde-2258-457d-b422-3256c78d3ea4.jpgAlma: Judging Session (2023)[Wiki](https://2023.igem.wiki/alma)https://static.igem.org/peertube/streaming-playlists/hls/fb4d172c-197b-4ae6-a5a6-95e848207cd1/179d43ff-3476-47d8-96b9-2739bea3947d-master.m3u8https://video.igem.org/videos/embed/x2QKYt9nvUk2qUMAN3nwgc18000312023-11-04T07:55:08.280ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wTduicqJcppKdy2B53hr57https://video.igem.org/lazy-static/thumbnails/a8ddcbaf-e843-4a28-8033-035246380c5c.jpgSaint-Joseph: Judging Session (2023)[Wiki](https://2023.igem.wiki/saint-joseph)https://static.igem.org/peertube/streaming-playlists/hls/fa18c9b9-efd8-4ab2-b4bd-17f55aa9cdd2/37e2a42a-feda-49a8-8744-0025f69a3fe5-master.m3u8https://video.igem.org/videos/embed/wTduicqJcppKdy2B53hr5718000322023-11-04T08:05:18.453ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wa5ZcwuW5Yh2n28kDyPqgchttps://video.igem.org/lazy-static/thumbnails/3e4c8052-db6e-4380-a2b5-c13086ff7655.jpgVITVellore: Judging Session (2023)[Wiki](https://2023.igem.wiki/vitvellore)https://static.igem.org/peertube/streaming-playlists/hls/f436ed34-0972-4d72-b9fc-b0c0ccd75589/120b3bfa-6b6d-4350-b8f5-6806d58d0c65-master.m3u8https://video.igem.org/videos/embed/wa5ZcwuW5Yh2n28kDyPqgc18000682023-11-04T08:15:29.575ZYES2023 Judging SessionsNOhttps://video.igem.org/w/5bYEQE6ErHguDiCwtWg5vzhttps://video.igem.org/lazy-static/thumbnails/c9c99534-1766-4299-8164-4c16260c6f9c.jpgWHS-Fremont: Judging Session (2023)[Wiki](https://2023.igem.wiki/whs-fremont)https://static.igem.org/peertube/streaming-playlists/hls/21ecea8e-fbcf-4f4b-b931-0df555de4d5b/05e08b08-1a20-4ad6-96c4-c65c2d839f55-master.m3u8https://video.igem.org/videos/embed/5bYEQE6ErHguDiCwtWg5vz18000142023-11-05T14:05:58.024ZYES2023 Judging SessionsNOhttps://video.igem.org/w/2ezvYegJjmeJuifL53GQi3https://video.igem.org/lazy-static/thumbnails/53cce7a3-3aa3-433b-bd6d-21f72888848e.jpgTeam Plaza PresentationTeam Plaza Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/09fe768c-5f86-4fef-b7cd-d9b1026f207c/06153351-3f54-4068-9762-69ec2243825f-master.m3u8https://video.igem.org/videos/embed/2ezvYegJjmeJuifL53GQi3900052023-11-05T15:15:28.413ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/fsdM2oJkjYcePGbisWbx1vhttps://video.igem.org/lazy-static/thumbnails/7f18fd3a-0a6d-487a-816e-259c1c9381e3.jpgLatvia-Riga: Judging Session (2023)[Wiki](https://2023.igem.wiki/latvia-riga)https://static.igem.org/peertube/streaming-playlists/hls/75092725-bcd8-44cc-8701-56e63cc89de9/5b497a94-078b-4cf4-b4e3-97803d3dfae8-master.m3u8https://video.igem.org/videos/embed/fsdM2oJkjYcePGbisWbx1v18000182023-11-05T14:50:22.853ZYES2023 Judging SessionsNOhttps://video.igem.org/w/tv8Wdsk1aqqFdGQhPJkeuohttps://video.igem.org/lazy-static/thumbnails/bd554497-7747-414b-ba68-e448fff4e526.jpgFAU-Erlangen: Judging Session (2023)[Wiki](https://2023.igem.wiki/fau-erlangen)https://static.igem.org/peertube/streaming-playlists/hls/deb833fe-ae64-4841-8185-022abaf5173a/1dbf6bdf-8fa6-4d3b-99b6-92fd6b4bb244-master.m3u8https://video.igem.org/videos/embed/tv8Wdsk1aqqFdGQhPJkeuo1800062023-11-06T00:00:38.089ZYES2023 Judging SessionsNOhttps://video.igem.org/w/vWJ6txVHY2XRkSrTHp7F4Ghttps://video.igem.org/lazy-static/thumbnails/56797ed9-5f23-494d-99ac-20174864228a.jpgFDR-HBPeru: Judging Session (2023)[Wiki](https://2023.igem.wiki/fdr-hbperu)https://static.igem.org/peertube/streaming-playlists/hls/f27d2056-127a-413a-ae25-471925259292/b0b79e95-15e1-491c-909c-70d7481d306a-master.m3u8https://video.igem.org/videos/embed/vWJ6txVHY2XRkSrTHp7F4G18000302023-11-05T15:05:24.060ZYES2023 Judging SessionsNOhttps://video.igem.org/w/sYep1mfSmNqYsYUXWcZ1tehttps://video.igem.org/lazy-static/thumbnails/47185b28-32b1-4f77-8c9c-d4f45b082354.jpgCambridge: Judging Session (2023)[Wiki](https://2023.igem.wiki/cambridge)https://static.igem.org/peertube/streaming-playlists/hls/da678323-9ab2-4fc9-aba3-b6c61fd36e43/e31fa81b-c081-42f2-a2cc-74f1055980f7-master.m3u8https://video.igem.org/videos/embed/sYep1mfSmNqYsYUXWcZ1te18000372023-11-06T00:30:47.909ZYES2023 Judging SessionsNOhttps://video.igem.org/w/iWVXYSTWbvJuiGaKR8SfAzhttps://video.igem.org/lazy-static/thumbnails/609d0971-a445-4460-a92d-ab477a8c281a.jpgLambert-GA: Judging Session (2023)[Wiki](https://2023.igem.wiki/lambert-ga)https://static.igem.org/peertube/streaming-playlists/hls/9156c72c-b362-4520-a5bf-a4a8f26dd7ed/faa70091-98a4-47de-8c6f-ed28e18067e8-master.m3u8https://video.igem.org/videos/embed/iWVXYSTWbvJuiGaKR8SfAz180001062023-11-06T00:10:41.862ZYES2023 Judging SessionsNOhttps://video.igem.org/w/2sBotzcCgzCWsKGHXuqmVPhttps://video.igem.org/lazy-static/thumbnails/218fa1a8-8d43-495b-b2f5-a96fe57e28e1.jpgBarcelona-UB: Judging Session (2023)[Wiki](https://2023.igem.wiki/barcelona-ub)https://static.igem.org/peertube/streaming-playlists/hls/0bd048f6-2463-4901-ac05-0500f7075521/cebc86b5-af60-460b-81b5-e7ab89a6b76c-master.m3u8https://video.igem.org/videos/embed/2sBotzcCgzCWsKGHXuqmVP18000342023-11-06T00:50:57.357ZYES2023 Judging SessionsNOhttps://video.igem.org/w/99VVQViC7G2y5W3vZRFf4Shttps://video.igem.org/lazy-static/thumbnails/e6091a6f-e9f8-4044-b42b-c850ea8a65cf.jpgMIT: Judging Session (2023)[Wiki](https://2023.igem.wiki/mit)https://static.igem.org/peertube/streaming-playlists/hls/42084b40-c7ba-4caf-b95e-d8be3a94d5e0/0b9c0af8-93ba-4fa8-a0bd-dc612e9881f1-master.m3u8https://video.igem.org/videos/embed/99VVQViC7G2y5W3vZRFf4S18000562023-11-06T00:20:50.356ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8ZPXz2CY5i2JRsc3dBmS2Whttps://video.igem.org/lazy-static/thumbnails/4f80c913-696e-4b81-a3db-9cf885203047.jpgExeter: Judging Session (2023)[Wiki](https://2023.igem.wiki/exeter)https://static.igem.org/peertube/streaming-playlists/hls/40c2ebb5-51b4-4acc-85fb-e825e1453d48/1e019598-2dfb-4af9-a215-5fca8ceb11fc-master.m3u8https://video.igem.org/videos/embed/8ZPXz2CY5i2JRsc3dBmS2W18000172023-11-06T00:40:51.629ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7G4nkHfxSSPS6U2C1n8o1zhttps://video.igem.org/lazy-static/thumbnails/45e05515-8bff-41d9-af82-a96910e2fb0d.jpgRBHS-SanDiego-CA: Judging Session (2023)[Wiki](https://2023.igem.wiki/rbhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/362ea887-a18d-48f8-891b-2b81d4a1cc21/981df248-94e3-42d0-83e0-bd11dd07f7b0-master.m3u8https://video.igem.org/videos/embed/7G4nkHfxSSPS6U2C1n8o1z1800062023-11-06T01:48:46.847ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wr4YfL232xFtrNkMgw6Yjkhttps://video.igem.org/lazy-static/thumbnails/7a2da192-3997-47aa-b8f4-a2ab1c86b5ec.jpgSession 1: Revolutionizing iGEM with the Power of AI & SynBioThis session will delve into the intersection of Artificial Intelligence (AI) and Synthetic Biology (SynBio), emphasizing iGEM's potential role in this convergence. It aims to raise awareness, foster collaboration, identify challenges, and discuss potential applications, ethical considerations, and regulatory frameworks.https://static.igem.org/peertube/streaming-playlists/hls/f6723359-e27d-4e78-a742-737d78715fcf/2ed6db53-a051-4d0e-bc2c-14c0000f3f88-master.m3u8https://video.igem.org/videos/embed/wr4YfL232xFtrNkMgw6Yjk54000362023-11-02T18:11:03.295ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/mSsTtP3NMcmH6nV7WP2GJthttps://video.igem.org/lazy-static/thumbnails/59136652-ed9c-48c3-8f94-129fe248e102.jpgNJTech-China-A: Judging Session (2023)[Wiki](https://2023.igem.wiki/njtech-china-a)https://static.igem.org/peertube/streaming-playlists/hls/a9028821-4edc-4f34-9e02-249c0fb8a417/00549d83-644e-4972-bb82-a29700726a7d-master.m3u8https://video.igem.org/videos/embed/mSsTtP3NMcmH6nV7WP2GJt18000342023-11-06T01:58:10.890ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qAhJgzGn3Bo4HVCaxsgb2thttps://video.igem.org/lazy-static/thumbnails/3f52cb9b-7adf-4165-84b7-7c47cfdc779f.jpgBPI-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/bpi-china)https://static.igem.org/peertube/streaming-playlists/hls/c724ecec-eed0-4118-8ef7-b02d42757b55/0b00b0a0-392a-4561-a770-5eeccdcb8c23-master.m3u8https://video.igem.org/videos/embed/qAhJgzGn3Bo4HVCaxsgb2t18000302023-11-06T02:08:03.461ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qwZcJXcC1YMzUfGKETGzFahttps://video.igem.org/lazy-static/thumbnails/b0f4fc8d-9931-4394-9af6-ed54c09660ae.jpgUConn: Judging Session (2023)[Wiki](https://2023.igem.wiki/uconn)https://static.igem.org/peertube/streaming-playlists/hls/c6aee4a7-cf78-4000-b6a1-b928112b1373/288dff11-d084-4fcb-a920-a8b0911b7370-master.m3u8https://video.igem.org/videos/embed/qwZcJXcC1YMzUfGKETGzFa1800082023-11-06T02:19:06.410ZYES2023 Judging SessionsNOhttps://video.igem.org/w/winzmQkZnCY6pn36WhoMkjhttps://video.igem.org/lazy-static/thumbnails/02e2f41b-225c-4ab5-bcb5-dca390531dd9.jpgSUSTech-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/sustech-china)https://static.igem.org/peertube/streaming-playlists/hls/f55f199d-1c8d-49ed-9d74-6e4615414724/a9eedae7-3e74-494c-b6dc-f294adb78022-master.m3u8https://video.igem.org/videos/embed/winzmQkZnCY6pn36WhoMkj18000152023-11-06T02:27:42.747ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wxoi3kYAYrxJ2NrJo1NU1uhttps://video.igem.org/lazy-static/thumbnails/8dbacd79-abad-4753-a197-b1b625739fb0.jpgSquirrel-Shanghai: Judging Session (2023)[Wiki](https://2023.igem.wiki/squirrel-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/f753f4a9-8fb1-4d38-8d35-e33a9e145f5c/3e719827-875f-4208-97dc-591e000f47db-master.m3u8https://video.igem.org/videos/embed/wxoi3kYAYrxJ2NrJo1NU1u18000362023-11-06T02:37:41.510ZYES2023 Judging SessionsNOhttps://video.igem.org/w/rrib57Bfr5tqDRmoP25zGAhttps://video.igem.org/lazy-static/thumbnails/0117d678-2b33-4e1c-9468-1eb594ec3f67.jpgIISER-Tirupati-India: Judging Session (2023)[Wiki](https://2023.igem.wiki/iiser-tirupati-india)https://static.igem.org/peertube/streaming-playlists/hls/cdfca4f6-0c58-46a4-88fb-8049ff1eaf66/f5870a42-c2ed-4520-a659-0f304d720177-master.m3u8https://video.igem.org/videos/embed/rrib57Bfr5tqDRmoP25zGA18000242023-11-06T02:49:45.406ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3XCjbKfwi76rH3AngYmZcQhttps://video.igem.org/lazy-static/thumbnails/217b06b1-2b09-4be7-b2bf-aa988e222e94.jpgCUG-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/cug-china)https://static.igem.org/peertube/streaming-playlists/hls/17f6904d-91ad-495d-a389-6723f14b5af2/1b0d7854-5d96-436a-ac0a-9d074d8a1e6a-master.m3u8https://video.igem.org/videos/embed/3XCjbKfwi76rH3AngYmZcQ1800082023-11-06T02:58:56.350ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4VXS8PogbwNou6mwbeBztyhttps://video.igem.org/lazy-static/thumbnails/503db4a5-0293-4bb2-a36d-c5fe9cd32fbe.jpgPLKNPLC-HK: Judging Session (2023)[Wiki](https://2023.igem.wiki/plknplc-hk)https://static.igem.org/peertube/streaming-playlists/hls/1fd44371-24b8-4adc-b3d5-4f5c82223fea/46d58f18-1427-4b09-ac12-b6ee350e9a0f-master.m3u8https://video.igem.org/videos/embed/4VXS8PogbwNou6mwbeBzty1800032023-11-06T03:07:46.402ZYES2023 Judging SessionsNOhttps://video.igem.org/w/ujSnRa4zZZkMpou2ov9hFmhttps://video.igem.org/lazy-static/thumbnails/0079b96f-ee41-4014-9d11-69e3ca4c00ca.jpgWaterloo: Judging Session (2023)[Wiki](https://2023.igem.wiki/waterloo)https://static.igem.org/peertube/streaming-playlists/hls/e56250ea-23b3-4370-b0af-f70a9ce4373a/2600701e-2f01-4b64-9f6a-2b451c99e1d5-master.m3u8https://video.igem.org/videos/embed/ujSnRa4zZZkMpou2ov9hFm18000112023-11-06T03:17:13.743ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8nYcHu2GNh6tEjJuAcYnBvhttps://video.igem.org/lazy-static/thumbnails/111f3687-4bee-45b9-a087-93c2aea67ff4.jpgBJYUAN-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/bjyuan-china)https://static.igem.org/peertube/streaming-playlists/hls/3bc139ba-07e4-47a8-a1dd-6e53013e4daf/2cb10afe-ba3d-40fe-91b5-c98fbe43dfe2-master.m3u8https://video.igem.org/videos/embed/8nYcHu2GNh6tEjJuAcYnBv18000172023-11-06T03:27:25.274ZYES2023 Judging SessionsNOhttps://video.igem.org/w/j4NWX4jfw12vDWufoHXZHAhttps://video.igem.org/lazy-static/thumbnails/b54470ef-7991-4ca7-a93b-021a3a1ec76b.jpgXHD-WuHan-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/xhd-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/924ca8d8-82bf-4f30-b9f6-83db7af059d8/3a868d47-55d2-4acf-ba0b-41481627cc7d-master.m3u8https://video.igem.org/videos/embed/j4NWX4jfw12vDWufoHXZHA18000142023-11-06T03:36:29.469ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uZz1LJJgsVsrp3cd9koQS8https://video.igem.org/lazy-static/thumbnails/28c8699b-5913-47d4-998d-4351db0f6744.jpgCSU-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/csu-china)https://static.igem.org/peertube/streaming-playlists/hls/eac99f5e-a43e-4973-ad3d-919773ea413b/ed074311-c5ac-4a0a-8cef-5e076d69e50f-master.m3u8https://video.igem.org/videos/embed/uZz1LJJgsVsrp3cd9koQS818000182023-11-06T03:46:03.395ZYES2023 Judging SessionsNOhttps://video.igem.org/w/avATBFfkSkzyymc5Q8Vwmzhttps://video.igem.org/lazy-static/thumbnails/f0eaa9b0-dca5-4585-9882-d51071e8306d.jpgTeam Plaza PresentationTeam Plaza Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/4d0451a6-582c-4f4c-b593-eefbb9e0bb19/0900a9e6-a280-43de-9a3c-f088f590e01d-master.m3u8https://video.igem.org/videos/embed/avATBFfkSkzyymc5Q8Vwmz9000132023-11-06T04:04:19.981ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/fqmvAJgXTVQx8LVK53RuzEhttps://video.igem.org/lazy-static/thumbnails/1d79c326-532a-41f9-9e42-d6376fbffbdf.jpgUBC-Vancouver: Judging Session (2023)[Wiki](https://2023.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/74c66e81-00a4-498f-a2f2-c348a3fd1118/9dfd4f9d-71fe-4f94-9f3e-e806aa332394-master.m3u8https://video.igem.org/videos/embed/fqmvAJgXTVQx8LVK53RuzE18000412023-11-06T04:50:19.185ZYES2023 Judging SessionsNOhttps://video.igem.org/w/fJMAgEizjiJE2G5cNrb9qRhttps://video.igem.org/lazy-static/thumbnails/da4e6fb0-6015-4728-9407-e76d51c89ffa.jpgTU-Braunschweig: Judging Session (2023)[Wiki](https://2023.igem.wiki/tu-braunschweig)https://static.igem.org/peertube/streaming-playlists/hls/775946a4-7586-49ab-aa04-12073ed3a661/41013448-e392-4818-a353-08db7ceb24e2-master.m3u8https://video.igem.org/videos/embed/fJMAgEizjiJE2G5cNrb9qR18000392023-11-06T05:00:22.031ZYES2023 Judging SessionsNOhttps://video.igem.org/w/cPZg8KNXswasQMHqhF6bSLhttps://video.igem.org/lazy-static/thumbnails/07b2cb91-cb3b-4396-89de-67a6c4f58262.jpgStanford: Judging Session (2023)[Wiki](https://2023.igem.wiki/stanford)https://static.igem.org/peertube/streaming-playlists/hls/5fc7c54f-d4f2-4e6a-95ef-e529b8562aa0/06cb269a-cd45-4c57-af05-802a3d440c6b-master.m3u8https://video.igem.org/videos/embed/cPZg8KNXswasQMHqhF6bSL18000492023-11-06T05:10:17.349ZYES2023 Judging SessionsNOhttps://video.igem.org/w/kb8gJXwGqwYMZVi6qxpqjqhttps://video.igem.org/lazy-static/thumbnails/178158c2-8f53-4dac-af2e-f5ffaa70d8b9.jpgDuke: Judging Session (2023)[Wiki](https://2023.igem.wiki/duke)https://static.igem.org/peertube/streaming-playlists/hls/9b478dab-2ffc-4604-a182-4ca610ebb9d4/07c3e315-e4e1-4b05-8e01-b6ca28cbfe65-master.m3u8https://video.igem.org/videos/embed/kb8gJXwGqwYMZVi6qxpqjq18000112023-11-06T05:20:12.640ZYES2023 Judging SessionsNOhttps://video.igem.org/w/mVJpCMFde8FrWyAaqdKqL1https://video.igem.org/lazy-static/thumbnails/473d6acf-5627-4ba9-86ab-e55ae9128d38.jpgThessaly: Judging Session (2023)[Wiki](https://2023.igem.wiki/thessaly)https://static.igem.org/peertube/streaming-playlists/hls/a97753da-7a1e-490a-8758-b7ed02087310/5609e2c4-6d88-4caa-aab5-4a3b66461be2-master.m3u8https://video.igem.org/videos/embed/mVJpCMFde8FrWyAaqdKqL118000872023-11-06T05:30:20.454ZYES2023 Judging SessionsNOhttps://video.igem.org/w/1TUsuBkWz9MoqVvqHVqRS4https://video.igem.org/lazy-static/thumbnails/85d9d7bc-fc50-49c6-92da-ec65277e4237.jpguniCRETE: Judging Session (2023)[Wiki](https://2023.igem.wiki/unicrete)https://static.igem.org/peertube/streaming-playlists/hls/073f4289-6ebd-4652-80af-f92241df596b/93ad8a05-2eeb-4fbd-8c77-3291ddede772-master.m3u8https://video.igem.org/videos/embed/1TUsuBkWz9MoqVvqHVqRS418000102023-11-06T05:40:23.144ZYES2023 Judging SessionsNOhttps://video.igem.org/w/jM6pXY4gfaZd4Muk9Vs1H8https://video.igem.org/lazy-static/thumbnails/ce8caa2b-00fc-446d-a2df-c54a1f804a42.jpgThinker-Shenzhen: Judging Session (2023)[Wiki](https://2023.igem.wiki/thinker-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/98104d30-cba1-4381-843d-022ba6b35271/738acb88-6a6b-430b-afdd-6a6589bfff69-master.m3u8https://video.igem.org/videos/embed/jM6pXY4gfaZd4Muk9Vs1H818000172023-11-06T05:50:17.568ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6kDB5JENEFKmNhucE2UsQghttps://video.igem.org/lazy-static/thumbnails/e484304a-0f58-4c53-bfa4-41139568bbc5.jpgDuesseldorf: Judging Session (2023)[Wiki](https://2023.igem.wiki/duesseldorf)https://static.igem.org/peertube/streaming-playlists/hls/2b3bffef-58aa-4a1d-a17d-9aadb66b5247/ca5f8b2f-5123-4206-9d09-e384edf6eb99-master.m3u8https://video.igem.org/videos/embed/6kDB5JENEFKmNhucE2UsQg18000132023-11-06T06:00:14.773ZYES2023 Judging SessionsNOhttps://video.igem.org/w/eRg5zvYVoNdF4n8sNGe91khttps://video.igem.org/lazy-static/thumbnails/634bc642-993e-4787-acd0-3bc591a5f51b.jpgUNT: Judging Session (2023)[Wiki](https://2023.igem.wiki/unt)https://static.igem.org/peertube/streaming-playlists/hls/70278a3f-67a0-4ec9-a4e6-2333e455b57b/3d6e2288-42cb-43bb-b70a-4b4e475e9eab-master.m3u8https://video.igem.org/videos/embed/eRg5zvYVoNdF4n8sNGe91k1800072023-11-06T06:10:10.962ZYES2023 Judging SessionsNOhttps://video.igem.org/w/rDE19QeyAchBDUdRjUbMkohttps://video.igem.org/lazy-static/thumbnails/ff5bb6b2-e7e0-49d2-b84e-f9ef4edc5818.jpgMichigan: Judging Session (2023)[Wiki](https://2023.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/cfb667eb-aa36-4e86-890b-f99d4eb00808/daecf932-1f56-43e0-a097-6cc0cb09b6ca-master.m3u8https://video.igem.org/videos/embed/rDE19QeyAchBDUdRjUbMko18000162023-11-06T06:20:01.434ZYES2023 Judging SessionsNOhttps://video.igem.org/w/poByEWXmbzPqi588ABN5Udhttps://video.igem.org/lazy-static/thumbnails/859f23f7-beed-4a94-b30a-baa03e13bc9c.jpgYiYe-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/yiye-china)https://static.igem.org/peertube/streaming-playlists/hls/bd6a7802-2da5-4054-b85f-ee4d6381d744/bb2bfc55-038a-4df1-9503-b771c1ec5c8a-master.m3u8https://video.igem.org/videos/embed/poByEWXmbzPqi588ABN5Ud18000212023-11-06T06:30:12.276ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4X2pD7nqta56gKXs6uoiA4https://video.igem.org/lazy-static/thumbnails/2d3e195c-1863-4256-9d42-26fc400df4d6.jpgPTSH-Taiwan: Judging Session (2023)[Wiki](https://2023.igem.wiki/ptsh-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/1ffa30d7-36eb-4802-86b7-33cacbd6d96b/55532af0-209c-4935-b05d-738cdfd3be93-master.m3u8https://video.igem.org/videos/embed/4X2pD7nqta56gKXs6uoiA41800022023-11-06T06:40:16.194ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8qkDmJf3oYcskJBqfbB8QGhttps://video.igem.org/lazy-static/thumbnails/0b571332-dc43-4068-9d44-863d95d3030a.jpgSquirrel-CHN-II: Judging Session (2023)[Wiki](https://2023.igem.wiki/squirrel-chn-ii)https://static.igem.org/peertube/streaming-playlists/hls/3c15ed5d-20c3-48d3-b919-40d24a18c95c/db70e0c6-8c8c-4034-842a-2ceca6890331-master.m3u8https://video.igem.org/videos/embed/8qkDmJf3oYcskJBqfbB8QG18000212023-11-06T06:50:14.657ZYES2023 Judging SessionsNOhttps://video.igem.org/w/1u1QT95pGiPpxsL5bi9KfFhttps://video.igem.org/lazy-static/thumbnails/f86e68dd-2d69-4b2e-a6e6-2e15a0db976f.jpgSubCat-GD: Judging Session (2023)[Wiki](https://2023.igem.wiki/subcat-gd)https://static.igem.org/peertube/streaming-playlists/hls/03e9584e-6c1a-48d1-9171-fad9dcdb8aef/fdd5ea47-4218-42d1-8445-d3657ff9029c-master.m3u8https://video.igem.org/videos/embed/1u1QT95pGiPpxsL5bi9KfF18000182023-11-06T07:00:15.628ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qmYJykFub4Kf4kDPgyeSRahttps://video.igem.org/lazy-static/thumbnails/d841a42c-3a44-4ddb-90b4-e4c7dbf665a8.jpgRUBochum: Judging Session (2023)[Wiki](https://2023.igem.wiki/rubochum)https://static.igem.org/peertube/streaming-playlists/hls/c5492aa9-fbbe-46de-b4ad-16e4ab27c1d3/5f64f865-6e66-42a6-9153-1500bc9d6754-master.m3u8https://video.igem.org/videos/embed/qmYJykFub4Kf4kDPgyeSRa18000192023-11-06T07:10:28.821ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8pRWWantPg77gkR7dYXsawhttps://video.igem.org/lazy-static/thumbnails/d324013d-4fbf-4ca0-b358-d43590d99b22.jpgNMU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/nmu-china)https://static.igem.org/peertube/streaming-playlists/hls/3c04dbbc-86a2-486c-bdbc-3519fdf16e68/c5822ec7-5a12-4b01-8d9c-e651ce897f27-master.m3u8https://video.igem.org/videos/embed/8pRWWantPg77gkR7dYXsaw18000852023-11-06T07:21:01.202ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4KuM1BcSRLUa7y1nnyWRj4https://video.igem.org/lazy-static/thumbnails/11cca256-8abf-4cfa-9dd9-71d6b6b0402e.jpgSJTU-BioX-Shanghai: Judging Session (2023)[Wiki](https://2023.igem.wiki/sjtu-biox-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/1e5e21c7-e279-4a10-9181-e9f317eab7cb/414f2843-93a9-475d-8d7d-56723cfe7da3-master.m3u8https://video.igem.org/videos/embed/4KuM1BcSRLUa7y1nnyWRj418000252023-11-06T07:31:02.250ZYES2023 Judging SessionsNOhttps://video.igem.org/w/mp4jL6GD7Y2CNM3ZhQewV3https://video.igem.org/lazy-static/thumbnails/629ae568-2510-4a32-a961-ad40fb75c9e2.jpgTechnion-Israel: Judging Session (2023)[Wiki](https://2023.igem.wiki/technion-israel)https://static.igem.org/peertube/streaming-playlists/hls/a52eed95-6638-4881-b1cb-7e2a97e3e184/ad77e28d-13f9-428e-bf42-167046a3a4a2-master.m3u8https://video.igem.org/videos/embed/mp4jL6GD7Y2CNM3ZhQewV318000472023-11-06T07:41:00.981ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9XSyZQwDeNciA3rEDE9icnhttps://video.igem.org/lazy-static/thumbnails/dcf168b1-86bd-46e0-9b03-4f0a795eeeb3.jpgNNU-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/nnu-china)https://static.igem.org/peertube/streaming-playlists/hls/48962e4b-0618-4f13-b167-17eea1d7c9b7/77b3c2cb-79cb-4bff-b308-864613497710-master.m3u8https://video.igem.org/videos/embed/9XSyZQwDeNciA3rEDE9icn18000372023-11-06T07:50:58.151ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7jEbB3mtXsfEqWqWpYmjXshttps://video.igem.org/lazy-static/thumbnails/e55224c1-ed15-4801-9495-a09727449c70.jpgDKU: Judging Session (2023)[Wiki](https://2023.igem.wiki/dku)https://static.igem.org/peertube/streaming-playlists/hls/3331c036-1273-408d-8f15-e817898fec98/f6334883-4713-4d64-b617-450216d96d40-master.m3u8https://video.igem.org/videos/embed/7jEbB3mtXsfEqWqWpYmjXs1800082023-11-06T08:00:45.895ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9myho4vJR3CfGbeSzGjXYAhttps://video.igem.org/lazy-static/thumbnails/5a2f3850-661a-4df7-b010-e123daa6b06b.jpgShanghaiTech-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/shanghaitech-china)https://static.igem.org/peertube/streaming-playlists/hls/43a7e122-325d-4669-b4dc-3f0864df3d7e/f812c512-fefb-404b-994b-565020c3496f-master.m3u8https://video.igem.org/videos/embed/9myho4vJR3CfGbeSzGjXYA180001302023-11-06T08:10:49.305ZYES2023 Judging SessionsNOhttps://video.igem.org/w/2pQjaaEWS1hN8K9L2zW3nQhttps://video.igem.org/lazy-static/thumbnails/02ea5779-028b-4bb8-9f89-40081837b289.jpgULC: Judging Session (2023)[Wiki](https://2023.igem.wiki/ulc)https://static.igem.org/peertube/streaming-playlists/hls/0b6d04f4-96b8-41c4-86d9-b52d1de5685a/a5e64486-0ec7-4e6f-bd60-a6dec01345fd-master.m3u8https://video.igem.org/videos/embed/2pQjaaEWS1hN8K9L2zW3nQ18000272023-11-06T08:21:52.012ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6v21U8bZhpNcezKNsc7KDChttps://video.igem.org/lazy-static/thumbnails/10a844b6-ff2a-4513-ad91-ef413378b5e2.jpgTHINKER-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/thinker-china)https://static.igem.org/peertube/streaming-playlists/hls/2c8ae371-8212-49ac-969e-717891115e72/060555c5-9aea-4ae6-8036-e3417622e3bd-master.m3u8https://video.igem.org/videos/embed/6v21U8bZhpNcezKNsc7KDC18000252023-11-06T08:32:51.792ZYES2023 Judging SessionsNOhttps://video.igem.org/w/gtWpYkLPE4iUmtwjmj9zophttps://video.igem.org/lazy-static/thumbnails/202de1e6-eaa7-4ef9-9ba1-3e8e687ff1b5.jpgGEMS-Taiwan: Judging Session (2023)[Wiki](https://2023.igem.wiki/gems-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/7d5fb1f0-9726-4710-8635-27d94365ba17/eb32dbb5-d184-4ac6-8200-c04fc548e110-master.m3u8https://video.igem.org/videos/embed/gtWpYkLPE4iUmtwjmj9zop180001342023-11-06T08:41:18.702ZYES2023 Judging SessionsNOhttps://video.igem.org/w/dZYNMYE1gNbZAT7wEp4jYYhttps://video.igem.org/lazy-static/thumbnails/fd39a9db-0f62-432e-a0a3-43a104ab9872.jpgNYU-New-York: Judging Session (2023)[Wiki](https://2023.igem.wiki/nyu-new-york)https://static.igem.org/peertube/streaming-playlists/hls/69461135-bca1-4a7c-8cb4-493ea4b37f98/2a436554-2d69-47c5-be06-ae98e5fa4ce8-master.m3u8https://video.igem.org/videos/embed/dZYNMYE1gNbZAT7wEp4jYY18000102023-11-06T09:49:22.296ZYES2023 Judging SessionsNOhttps://video.igem.org/w/h2o3xbhD9xdCmJf98VNjdfhttps://video.igem.org/lazy-static/thumbnails/b77d110e-346d-49e2-8799-fece2390e74e.jpgWVHS-SanDiego: Judging Session (2023)[Wiki](https://2023.igem.wiki/wvhs-sandiego)https://static.igem.org/peertube/streaming-playlists/hls/81c38c1a-2415-4c8d-aa47-e973f966c52e/25ea6549-5ebc-415f-bba0-750d64c8b51d-master.m3u8https://video.igem.org/videos/embed/h2o3xbhD9xdCmJf98VNjdf1800092023-11-06T09:58:57.781ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3Lr3RTrQzD2fVhtYVxQFhShttps://video.igem.org/lazy-static/thumbnails/cfd74ef1-1538-449d-a43c-a5d895e1b185.jpgCCA-San-Diego: Judging Session (2023)[Wiki](https://2023.igem.wiki/cca-san-diego)https://static.igem.org/peertube/streaming-playlists/hls/166670bd-37ec-4fc9-8b2c-9076b46a365e/b7fbee8b-6ed7-4225-a2ba-574a6c0449da-master.m3u8https://video.igem.org/videos/embed/3Lr3RTrQzD2fVhtYVxQFhS18000272023-11-06T10:10:38.690ZYES2023 Judging SessionsNOhttps://video.igem.org/w/rTHhCCF55Beg7Ss9aHxohohttps://video.igem.org/lazy-static/thumbnails/63c92fe9-8b4d-4c4c-95f4-22ca223db0f4.jpgIISc-Bengaluru: Judging Session (2023)[Wiki](https://2023.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/d1acd7b6-e3a1-4575-b03e-4a561432aed6/e6f6e46a-f7fc-41be-a19c-89a01cb7009a-master.m3u8https://video.igem.org/videos/embed/rTHhCCF55Beg7Ss9aHxoho18000372023-11-06T10:20:40.849ZYES2023 Judging SessionsNOhttps://video.igem.org/w/mM34ZGwakgyRFcWr4eH5Schttps://video.igem.org/lazy-static/thumbnails/35028742-ff5b-4985-9c91-c9661739086d.jpgWashington: Judging Session (2023)[Wiki](https://2023.igem.wiki/washington)https://static.igem.org/peertube/streaming-playlists/hls/a8408491-2750-4577-8ef5-794b318b6347/4d86db80-980b-409c-97c3-74bfbc843a7c-master.m3u8https://video.igem.org/videos/embed/mM34ZGwakgyRFcWr4eH5Sc1800092023-11-06T10:30:24.372ZYES2023 Judging SessionsNOhttps://video.igem.org/w/c1xRhNPAPpE2xabEFJaWjthttps://video.igem.org/lazy-static/thumbnails/f146fc07-a14e-4f80-b19e-0463b357b4be.jpgResponsibility Conference: Opening CeremonyJoin us at the Second Edition of the Responsiblity Conference! We will discuss the impact of the responsibility program and the importance of having the discussion that can not happen in other places.https://static.igem.org/peertube/streaming-playlists/hls/59282745-f4cc-4866-b857-9f22649c4eaf/77b6fbf9-f207-437d-b8b9-c5987196f9ca-master.m3u8https://video.igem.org/videos/embed/c1xRhNPAPpE2xabEFJaWjt18000272023-11-02T20:18:18.515ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/vU75QdYG2VuhMVzpK1aQVchttps://video.igem.org/lazy-static/thumbnails/b9570661-698e-4c1e-b55e-a7819ab36f63.jpgSCAU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/scau-china)https://static.igem.org/peertube/streaming-playlists/hls/f21f7236-b021-49e5-92ba-58c25a301155/6649b1f8-ab7a-48b2-98c3-43959959dc21-master.m3u8https://video.igem.org/videos/embed/vU75QdYG2VuhMVzpK1aQVc18000452023-11-06T10:40:31.063ZYES2023 Judging SessionsNOhttps://video.igem.org/w/w5ZwWpbGgP6V6mmfxF36sZhttps://video.igem.org/lazy-static/thumbnails/8376a9f5-e88c-4575-8c7c-8187fef8aff8.jpgLund: Judging Session (2023)[Wiki](https://2023.igem.wiki/lund)https://static.igem.org/peertube/streaming-playlists/hls/f3a49752-a709-44d0-810a-0da918498371/19b24379-891b-4039-a643-d6e9c56a071a-master.m3u8https://video.igem.org/videos/embed/w5ZwWpbGgP6V6mmfxF36sZ18000202023-11-06T10:50:27.651ZYES2023 Judging SessionsNOhttps://video.igem.org/w/abHu7Uiq6pF7HzpTvLVxcihttps://video.igem.org/lazy-static/thumbnails/cb8f9c25-1608-4597-bc41-02ff1ec7a74d.jpgNYCU-Taipei: Judging Session (2023)[Wiki](https://2023.igem.wiki/nycu-taipei)https://static.igem.org/peertube/streaming-playlists/hls/4a614066-6816-4748-9c31-0c4cd6317153/342c5e73-e1b7-441a-a917-b5a221d1b220-master.m3u8https://video.igem.org/videos/embed/abHu7Uiq6pF7HzpTvLVxci18000112023-11-06T11:00:20.613ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qFhZWgs6Ye76CDeFdZxZrRhttps://video.igem.org/lazy-static/thumbnails/36b88c16-0ec4-4914-950a-7665bbb43e15.jpgThrace: Judging Session (2023)[Wiki](https://2023.igem.wiki/thrace)https://static.igem.org/peertube/streaming-playlists/hls/c7d7cf91-1cca-4905-b5d3-8284e73a6707/25804a74-ecf3-4df6-b6b3-8c57bafede2f-master.m3u8https://video.igem.org/videos/embed/qFhZWgs6Ye76CDeFdZxZrR18000172023-11-06T11:10:23.565ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8Sjsxd5JkfjoQM8gxEnQw5https://video.igem.org/lazy-static/thumbnails/5590c1f7-c402-456d-ae35-f96e7fb715b5.jpgSCU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/scu-china)https://static.igem.org/peertube/streaming-playlists/hls/3fb688b3-a432-494b-90c0-061a61896dd8/5da8f163-1e9b-4f19-bff4-676ab3449e0a-master.m3u8https://video.igem.org/videos/embed/8Sjsxd5JkfjoQM8gxEnQw518000462023-11-06T11:20:22.332ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7YYZndhxn9QL7i9YvgGUachttps://video.igem.org/lazy-static/thumbnails/6601383b-b425-4552-b5ae-5182b8a3d14c.jpgNAU-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/nau-china)https://static.igem.org/peertube/streaming-playlists/hls/388b9a95-2a2d-44fb-82a9-58d9934849b5/85d0b78f-adc2-484e-b16f-7f396d73005c-master.m3u8https://video.igem.org/videos/embed/7YYZndhxn9QL7i9YvgGUac18000722023-11-06T11:30:32.189ZYES2023 Judging SessionsNOhttps://video.igem.org/w/x3ddHbV5QNYkZAPqmpDU4ghttps://video.igem.org/lazy-static/thumbnails/16a12ce8-fa2b-44e9-935f-192136987d4e.jpgNantes: Judging Session (2023)[Wiki](https://2023.igem.wiki/nantes)https://static.igem.org/peertube/streaming-playlists/hls/fb5a50f9-dab0-4c37-b90a-fec0a2424c45/2e11cf9b-6333-46cd-8667-b89d233a598f-master.m3u8https://video.igem.org/videos/embed/x3ddHbV5QNYkZAPqmpDU4g18000252023-11-06T11:40:23.675ZYES2023 Judging SessionsNOhttps://video.igem.org/w/i7oTxkBMAw5f5epqAGqNJxhttps://video.igem.org/lazy-static/thumbnails/7b36e50f-a474-4332-b79c-a13a5f3aae6f.jpgThailand-RIS: Judging Session (2023)[Wiki](https://2023.igem.wiki/thailand-ris)https://static.igem.org/peertube/streaming-playlists/hls/8a8fecea-bd3c-4dc3-a817-3f37cb41781b/5f8d60dc-200c-411d-bfd3-11a5cd220311-master.m3u8https://video.igem.org/videos/embed/i7oTxkBMAw5f5epqAGqNJx18000212023-11-06T11:50:22.153ZYES2023 Judging SessionsNOhttps://video.igem.org/w/5NwB2sUBCjNXrDW7mp8MKChttps://video.igem.org/lazy-static/thumbnails/360209c0-7fc8-42ea-8177-82f45065ec13.jpgHBUT-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/hbut-china)https://static.igem.org/peertube/streaming-playlists/hls/26e3a0dd-119c-4399-a1a7-626a2a4cc4be/e441ddd0-a826-46fb-9114-bc0148605981-master.m3u8https://video.igem.org/videos/embed/5NwB2sUBCjNXrDW7mp8MKC18000482023-11-06T12:00:30.432ZYES2023 Judging SessionsNOhttps://video.igem.org/w/ryQszrgXrQKdmMXHp4NaJvhttps://video.igem.org/lazy-static/thumbnails/fbbaa06e-4eeb-4e8d-9fe3-037a1c50c31f.jpgWuhan-Hubei-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/wuhan-hubei-china)https://static.igem.org/peertube/streaming-playlists/hls/cf0a216d-6bc1-4094-bf75-96cffd192a65/50569d5b-0072-42f1-93ab-607c2c52fb35-master.m3u8https://video.igem.org/videos/embed/ryQszrgXrQKdmMXHp4NaJv18000202023-11-06T12:10:23.658ZYES2023 Judging SessionsNOhttps://video.igem.org/w/aJRUXyvw2RWBrxYbdai7LPhttps://video.igem.org/lazy-static/thumbnails/9bf0c587-176e-49fa-b1e6-df305c1af87c.jpgCNAS-Romania: Judging Session (2023)[Wiki](https://2023.igem.wiki/cnas-romania)https://static.igem.org/peertube/streaming-playlists/hls/4ede3f0d-93dd-47d0-81b2-3b9cfd774e37/f8bc5e87-d5fb-475e-8e94-5c9d1d59e47f-master.m3u8https://video.igem.org/videos/embed/aJRUXyvw2RWBrxYbdai7LP18000182023-11-06T12:20:26.701ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8uWYqtF2rsKokiPwhLtuJ6https://video.igem.org/lazy-static/thumbnails/c3420666-0ab4-4908-b160-a93bb1233c6c.jpgSUSTech-MED: Judging Session (2023)[Wiki](https://2023.igem.wiki/sustech-med)https://static.igem.org/peertube/streaming-playlists/hls/3cbaaca3-5ab2-4b25-a83a-be3e28ab4c71/2b0911cb-bf8d-4754-afe4-ec3eda947ab0-master.m3u8https://video.igem.org/videos/embed/8uWYqtF2rsKokiPwhLtuJ6180001172023-11-06T12:30:35.423ZYES2023 Judging SessionsNOhttps://video.igem.org/w/bzm4gooaaw5PQpocu3hDNchttps://video.igem.org/lazy-static/thumbnails/73a6f910-8daa-4346-86b7-8c8edaf48ce9.jpgBulgaria: Judging Session (2023)[Wiki](https://2023.igem.wiki/bulgaria)https://static.igem.org/peertube/streaming-playlists/hls/55a34a88-5211-4d89-ba4c-3bcbbe03e98b/5892d523-768f-4bf1-9de2-c64b0d747ba6-master.m3u8https://video.igem.org/videos/embed/bzm4gooaaw5PQpocu3hDNc1800072023-11-06T12:40:41.148ZYES2023 Judging SessionsNOhttps://video.igem.org/w/sYdrNGAk6jTFWBFFMrjbzGhttps://video.igem.org/lazy-static/thumbnails/f28f8bc4-465e-44de-8051-9f2459bfaee5.jpgSession 2: Policy & Governance for Emerging TechnologiesThis session aims to initiate review of experiences of policy & governance for navigating emerging technologies, and also discussion for the present emerging technologies. It also intends to better understand and reflect the experiences of iGEM Responsibility Program in promoting responsible innovation.https://static.igem.org/peertube/streaming-playlists/hls/da66ecfc-c817-4f64-ad0e-a292a17cf5ca/cd464332-3dcd-433e-b54c-ec309f232fcf-master.m3u8https://video.igem.org/videos/embed/sYdrNGAk6jTFWBFFMrjbzG72000292023-11-02T21:10:16.005ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/f2nDboiqxtVNHdwW3wFs2ehttps://video.igem.org/lazy-static/thumbnails/06ba7065-145f-4004-9d3b-d453391253dc.jpgiGEM Hackathon: OpeningJoin us at the iGEM Hackathon, a unique event at Grand Jamboree 2023, where you can be a catalyst for change in the iGEM software universe. Dive into exciting challenges, including modernizing the iGEM Registry, creating a project discovery platform, working on cellular automata or implementing your own ideas to make iGEM even better. Engage with mentors, participate in workshops, and collaborate with Karyo Studios to make a lasting impact on iGEM's future. Connect, learn, and compete for a chance to win the first edition of iGEM Hackathon. Let's come together to build a more dynamic and modern iGEM community!https://static.igem.org/peertube/streaming-playlists/hls/71910592-21ba-4243-93ff-1545249997a7/2f9effae-9bff-4c6b-b94e-1db6af21157d-master.m3u8https://video.igem.org/videos/embed/f2nDboiqxtVNHdwW3wFs2e1020002023-11-02T21:24:51.628ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/q4ihFEHBmM5p1dDrh6R1eqhttps://video.igem.org/lazy-static/thumbnails/ae0205a4-2f17-4dcc-ac6b-4e9668abd39b.jpgiGEM Hackathon: Parts RegistryThe core of what iGEM is about - collection of biological parts used in synthetic biology. Its’ first entries date back to 2005 and has seen little improvements over time. 2024, almost 20 years later, is the year when Registry will be moving to its new and modern home. Propose and implement MVP of what the new Registry could look like. This should not only be a design improvement (which is still highly encouraged) but also new features that not only help to search over this huge database of 20000+ parts but also make adding and improving new ones that much easier.https://static.igem.org/peertube/streaming-playlists/hls/c2d1368a-1d60-4741-9b6e-a2c2e0fa78c2/13dbd08b-41ab-46bb-86d3-1d1ad1f18640-master.m3u8https://video.igem.org/videos/embed/q4ihFEHBmM5p1dDrh6R1eq11100172023-11-02T21:29:06.302ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/bSRAfYEoh2pJgpgkyMKnoihttps://video.igem.org/lazy-static/thumbnails/00d9bc97-7e42-4daf-a448-1dea4e801252.jpgiGEM Hackathon: Project Discovery PlatformSince the beginning of iGEM, it has seen over 4300+ projects, all with a goal to be a part of synthetic biology advancement. While each of the projects have their own documentation - wiki - there is no one place where we could see the whole picture to assess the impact these projects have. Propose and implement MVP of what this platform could entail and look like. Showing projects by year, topic, organism? Take your pick and make the best of it. New and exciting features are most welcomed here, as this platform would be key for inviting new teams, gathering new ideas and make iGEM competition easier to navigate.https://static.igem.org/peertube/streaming-playlists/hls/581522ed-08ee-4746-bd50-49d25a7fbec9/0468de3d-9421-4bc7-8cbe-f4d2ee6b191e-master.m3u8https://video.igem.org/videos/embed/bSRAfYEoh2pJgpgkyMKnoi665022023-11-02T21:30:26.291ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/mBTRGqcecH6rp7nuSkZ9sehttps://video.igem.org/lazy-static/thumbnails/d90800b8-0c4f-4194-93b4-ed64bfcbc1af.jpgiGEM Hackathon: Alien Chassis Cellular AutomataSession in collaboration with Karyo Studios: Create a programming framework for an in-game alien chassis, incorporating cellular automata principles to create emergent behaviors.https://static.igem.org/peertube/streaming-playlists/hls/a6f9c358-2dfa-4711-9314-d6aa675b56e9/e9d84c68-66d1-4a59-a13e-8d9e8720160b-master.m3u8https://video.igem.org/videos/embed/mBTRGqcecH6rp7nuSkZ9se1400012023-11-02T21:33:17.649ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/iPpuKCFeKeX8vUNf6A8P5whttps://video.igem.org/lazy-static/thumbnails/abe6dae2-da61-4fdf-8b96-fa1a56bfa265.jpgGuangzhou-MedX: Plaza Presentation (2023)Guangzhou-MedX: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/9049cb4e-8bfb-4561-be73-3c996d630e7a/de140216-27ff-47db-8eaa-40951ee0f61a-master.m3u8https://video.igem.org/videos/embed/iPpuKCFeKeX8vUNf6A8P5w900052023-11-06T13:10:44.674ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/g8XEKybeaj4jbmAdmhgySbhttps://video.igem.org/lazy-static/thumbnails/722380ce-bdad-41b4-9caf-87637bd4844b.jpgTJUSLS-China: Plaza Presentation (2023)TJUSLS-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/7a9597ce-085c-4d0d-b530-e7205d5c21b6/3c526c05-ac63-4ac9-a188-4ef031b501e7-master.m3u8https://video.igem.org/videos/embed/g8XEKybeaj4jbmAdmhgySb9000452023-11-06T16:51:42.255ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/hy5axbfnWPGRdfVwava8N3https://video.igem.org/lazy-static/thumbnails/fd367a36-8e2c-44d5-8d8e-70af71055f88.jpgKCIS-Xiugang-Taipei: Judging Session (2023)[Wiki](https://2023.igem.wiki/kcis-xiugang-taipei)https://static.igem.org/peertube/streaming-playlists/hls/860c95eb-aaf4-4feb-936b-0d409cc49142/439a98c5-d61c-4f3d-9681-e49773fae572-master.m3u8https://video.igem.org/videos/embed/hy5axbfnWPGRdfVwava8N318000292023-11-06T17:01:03.805ZYES2023 Judging SessionsNOhttps://video.igem.org/w/hMgcjq5PrxwJShjdY5Kv9mhttps://video.igem.org/lazy-static/thumbnails/f4634e5e-14ef-4d71-ad0e-ad0f60e6f024.jpgTianjin: Judging Session (2023)[Wiki](https://2023.igem.wiki/tianjin)https://static.igem.org/peertube/streaming-playlists/hls/87e40d73-5405-46fe-b21a-92f8e2e286f0/2c276f0d-b0f1-4f68-b31c-bb3b90ba48b1-master.m3u8https://video.igem.org/videos/embed/hMgcjq5PrxwJShjdY5Kv9m18000202023-11-06T17:20:31.973ZYES2023 Judging SessionsNOhttps://video.igem.org/w/35Vd1GKVaRvFoCLomanqb9https://video.igem.org/lazy-static/thumbnails/c33e6398-3bbe-4a6b-bce6-2787cd43cc5b.jpgUNILausanne: Judging Session (2023)[Wiki](https://2023.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/10e20add-981c-47c3-9e37-10d2ad20b484/a48e5000-8326-4ea4-ba02-a4e1826bbb06-master.m3u8https://video.igem.org/videos/embed/35Vd1GKVaRvFoCLomanqb918000332023-11-06T17:30:32.363ZYES2023 Judging SessionsNOhttps://video.igem.org/w/1pyGAUYBawDdjB1A9cxaQ1https://video.igem.org/lazy-static/thumbnails/a211df13-d584-4e56-ba03-44c352ac53dc.jpgHUBU-SKY-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/hubu-sky-china)https://static.igem.org/peertube/streaming-playlists/hls/034a4242-24f7-49ad-9532-5295eb154c2c/2c3de2d2-7d4c-4387-9f8c-29811a40b187-master.m3u8https://video.igem.org/videos/embed/1pyGAUYBawDdjB1A9cxaQ118000252023-11-06T17:40:30.095ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uufgBomUebi4t57Sknx2ubhttps://video.igem.org/lazy-static/thumbnails/41e498e0-a0d6-4d0e-aced-460503d97738.jpgFreiburg: Judging Session (2023)[Wiki](https://2023.igem.wiki/freiburg)https://static.igem.org/peertube/streaming-playlists/hls/e6b18070-06f7-4d39-b621-a4cbfe29b90e/e5d1d9d1-080b-4147-b4a1-b9f4fc22f755-master.m3u8https://video.igem.org/videos/embed/uufgBomUebi4t57Sknx2ub18000542023-11-06T17:50:19.774ZYES2023 Judging SessionsNOhttps://video.igem.org/w/c2NEZ31bAnHYyzCHtxAfYdhttps://video.igem.org/lazy-static/thumbnails/2a9e2051-fb6a-465b-b4d1-79d989fc317a.jpgOxford: Judging Session (2023)[Wiki](https://2023.igem.wiki/oxford)https://static.igem.org/peertube/streaming-playlists/hls/59550820-c438-43a6-b8ec-ef5882970e14/cb4252db-04c0-4ff7-8288-9ec9a99673dc-master.m3u8https://video.igem.org/videos/embed/c2NEZ31bAnHYyzCHtxAfYd18000442023-11-06T18:00:13.530ZYES2023 Judging SessionsNOhttps://video.igem.org/w/t8u3Jwtfv5xvQxZzXJ3Wxhhttps://video.igem.org/lazy-static/thumbnails/ad8ce17c-3f64-4800-81d1-6803ae882228.jpgHNU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/hnu-china)https://static.igem.org/peertube/streaming-playlists/hls/dbb23c20-0cd2-4e51-b089-ea631ecababe/2137b16b-3af2-4fe1-9f24-c166bc1323d1-master.m3u8https://video.igem.org/videos/embed/t8u3Jwtfv5xvQxZzXJ3Wxh18000212023-11-06T18:09:33.864ZYES2023 Judging SessionsNOhttps://video.igem.org/w/hzwP7UYJ1FiGHkc7u3GqrWhttps://video.igem.org/lazy-static/thumbnails/73b96d53-7f85-49bd-a3bc-d3de60c4d4bf.jpgHUST-UEVE-UPSaclay: Judging Session (2023)[Wiki](https://2023.igem.wiki/hust-ueve-upsaclay)https://static.igem.org/peertube/streaming-playlists/hls/8640c075-0ba5-4162-a4be-a7468d067d20/28859c69-7a45-43b9-8087-858e294b0498-master.m3u8https://video.igem.org/videos/embed/hzwP7UYJ1FiGHkc7u3GqrW18000422023-11-06T18:18:55.437ZYES2023 Judging SessionsNOhttps://video.igem.org/w/a8pXZg4vWM1vQ62MnGbwAyhttps://video.igem.org/lazy-static/thumbnails/a5a12a36-0d0c-46ff-9331-e5e5107258aa.jpgNJMU-China: Plaza Presentation (2023)NJMU-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/49eb3935-444f-4fb8-981e-9e56294814fc/1a224151-c222-4757-9e2c-21f7e3d0425d-master.m3u8https://video.igem.org/videos/embed/a8pXZg4vWM1vQ62MnGbwAy900022023-11-06T18:27:19.622ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/2zW9aN61D8gdkvhu72LxVBhttps://video.igem.org/lazy-static/thumbnails/2455a303-be48-45af-832d-f54905f1fe61.jpgUESTC-China: Plaza Presentation (2023)UESTC-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/0cd60c6d-c19f-4b5a-9e14-6d6ae151cb31/a3fcb38d-d8c7-4ac8-8bcb-bb8af5eadcfd-master.m3u8https://video.igem.org/videos/embed/2zW9aN61D8gdkvhu72LxVB9000132023-11-09T02:05:29.176ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/oxSPsetDYGhDv1pUTVvRtYhttps://video.igem.org/lazy-static/thumbnails/3ae82b6f-50c0-4204-9de1-1666544e9be7.jpgTSB-Center: Judging Session (2023)[Wiki](https://2023.igem.wiki/tsb-center)https://static.igem.org/peertube/streaming-playlists/hls/b69c6cd8-caf5-450a-aaa8-e67f8c5fc072/d5b3a85c-5845-4c41-8566-247a0a462db2-master.m3u8https://video.igem.org/videos/embed/oxSPsetDYGhDv1pUTVvRtY18000312023-11-09T02:15:50.845ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4zGfJCadbcMYpZ4nwwNwUjhttps://video.igem.org/lazy-static/thumbnails/5bca85cc-f885-47f7-8722-afad4fd7f8b3.jpgSYSU-SLS-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/sysu-sls-china)https://static.igem.org/peertube/streaming-playlists/hls/1cffc490-7a55-4462-b0d8-b65ad31063a2/829367f1-715e-4387-8895-156c3b163f44-master.m3u8https://video.igem.org/videos/embed/4zGfJCadbcMYpZ4nwwNwUj18000282023-11-09T02:25:39.438ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7uw8y9QitiEKEfMVdhwtDShttps://video.igem.org/lazy-static/thumbnails/4044b22f-92b3-403f-833e-3f1c655ef38f.jpgEvry-Paris-Saclay: Judging Session (2023)[Wiki](https://2023.igem.wiki/evry-paris-saclay)https://static.igem.org/peertube/streaming-playlists/hls/349239d7-821e-4ec7-ac49-7acad31d8a50/8ff54b1a-fa48-4a06-b497-200b968c7548-master.m3u8https://video.igem.org/videos/embed/7uw8y9QitiEKEfMVdhwtDS18000362023-11-09T02:35:32.071ZYES2023 Judging SessionsNOhttps://video.igem.org/w/dxeVs4R64jWbv5ynuXSwJ9https://video.igem.org/lazy-static/thumbnails/e5ef9527-132d-438e-848d-eaf53fbbc408.jpgSeoul-Korea: Judging Session (2023)[Wiki](https://2023.igem.wiki/seoul-korea)https://static.igem.org/peertube/streaming-playlists/hls/658a4cdc-d77e-4c13-b7c5-8ae5687bdcc4/5f9da446-974d-4ac4-b0b9-6dacf3606706-master.m3u8https://video.igem.org/videos/embed/dxeVs4R64jWbv5ynuXSwJ918000732023-11-09T03:45:32.367ZYES2023 Judging SessionsNOhttps://video.igem.org/w/jp8RXv3vBcZxpBpPe7YpaShttps://video.igem.org/lazy-static/thumbnails/74dd0b15-be04-4e64-b34a-6d88f13380ad.jpgiBowu-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/ibowu-china)https://static.igem.org/peertube/streaming-playlists/hls/94ff7282-8581-4d13-b6d2-2b11e99994f8/282dede3-3dd2-4f3b-871a-b4fc695ee13e-master.m3u8https://video.igem.org/videos/embed/jp8RXv3vBcZxpBpPe7YpaS18000852023-11-09T03:55:24.728ZYES2023 Judging SessionsNOhttps://video.igem.org/w/a6iPYhrBgeztBUyDjgmjcVhttps://video.igem.org/lazy-static/thumbnails/4de77791-a9d9-428c-8247-b4cd3709131e.jpgKCL-UK: Judging Session (2023)[Wiki](https://2023.igem.wiki/kcl-uk)https://static.igem.org/peertube/streaming-playlists/hls/499ff3ff-65b6-4d5b-9924-93d2f61680cb/49a24171-6150-46b3-9290-222016291b0a-master.m3u8https://video.igem.org/videos/embed/a6iPYhrBgeztBUyDjgmjcV18000292023-11-09T04:12:40.201ZYES2023 Judging SessionsNOhttps://video.igem.org/w/e5N5YAfwgmfVLt5hxGuH2qhttps://video.igem.org/lazy-static/thumbnails/94ac2160-9b37-42be-a287-5291efd77dee.jpgABOA-Turku: Judging Session (2023)[Wiki](https://2023.igem.wiki/aboa-turku)https://static.igem.org/peertube/streaming-playlists/hls/69f22dd5-49e8-4636-911d-84703b604556/5ea20924-19bf-4c47-9e88-7e2003d52028-master.m3u8https://video.igem.org/videos/embed/e5N5YAfwgmfVLt5hxGuH2q18000242023-11-09T04:31:11.114ZYES2023 Judging SessionsNOhttps://video.igem.org/w/sw1cC5hpCiCA3oT223hFYKhttps://video.igem.org/lazy-static/thumbnails/c2b9efb7-153e-4309-be2a-b25c97a68105.jpgAFCM-Egypt: Judging Session (2023)[Wiki](https://2023.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/d6be0aaf-f618-4e1c-a487-1d36951cdf57/8eb81e32-9def-4994-9995-39ab2150d151-master.m3u8https://video.igem.org/videos/embed/sw1cC5hpCiCA3oT223hFYK180001112023-11-09T04:41:02.076ZYES2023 Judging SessionsNOhttps://video.igem.org/w/xwQxvU257bL5nUcuNaPYTuhttps://video.igem.org/lazy-static/thumbnails/dd3352c5-6ed4-4b3a-ad48-993336a8cba2.jpgTsukuba: Judging Session (2023)[Wiki](https://2023.igem.wiki/tsukuba)https://static.igem.org/peertube/streaming-playlists/hls/ff598708-8fc5-4583-be1d-e8c6b6f619b2/2b19be71-dfe5-47c8-ad3e-d5dedee443f2-master.m3u8https://video.igem.org/videos/embed/xwQxvU257bL5nUcuNaPYTu18000342023-11-09T04:50:50.283ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7puVxRp4Bmu9yydUsNuF6shttps://video.igem.org/lazy-static/thumbnails/fa060914-8ddd-4856-a976-5c955ed1906c.jpgPatrasBio: Judging Session (2023)[Wiki](https://2023.igem.wiki/patrasbio)https://static.igem.org/peertube/streaming-playlists/hls/33dec365-36b9-43c7-8d7a-402d297dec38/df6306b7-76f9-4d96-91fa-5a403e09f740-master.m3u8https://video.igem.org/videos/embed/7puVxRp4Bmu9yydUsNuF6s18000172023-11-09T05:00:55.640ZYES2023 Judging SessionsNOhttps://video.igem.org/w/gtRR4rNBiwM49hiSK8qmJqhttps://video.igem.org/lazy-static/thumbnails/92705172-0e79-41a5-be14-334955bfdaa0.jpgSUSTech-Shenzhen: Judging Session (2023)[Wiki](https://2023.igem.wiki/sustech-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/7d5ce15a-8312-4587-b4d4-8df6e441207c/c632451c-fb4a-48ab-843c-3844424dbb1a-master.m3u8https://video.igem.org/videos/embed/gtRR4rNBiwM49hiSK8qmJq18000412023-11-09T05:10:50.098ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9WNy2keJLPx1kiHg4vQquXhttps://video.igem.org/lazy-static/thumbnails/798e197e-0a1b-485d-88d8-c4f4ed374fd3.jpgUPNAvarra-Spain: Judging Session (2023)[Wiki](https://2023.igem.wiki/upnavarra-spain)https://static.igem.org/peertube/streaming-playlists/hls/486ff62c-efd8-4f7c-b251-a1d64e77f85f/dbebf709-927f-4cbc-abd7-dc83b10f5111-master.m3u8https://video.igem.org/videos/embed/9WNy2keJLPx1kiHg4vQquX18000222023-11-09T05:30:18.673ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qoXmuWanqPRfocSbKWLorChttps://video.igem.org/lazy-static/thumbnails/3513a5e9-d196-4c3e-b1be-acd8133e727a.jpgSCIE-PearlDelta: Plaza Presentation (2023)SCIE-PearlDelta: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/c58fcdb4-f06d-4e48-8eb0-f99e13092b86/783cdf81-6e16-41a6-94e4-2496694afad0-master.m3u8https://video.igem.org/videos/embed/qoXmuWanqPRfocSbKWLorC9000102023-11-09T05:46:49.939ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/tLp4oPAuAFfYt81VrFEpmfhttps://video.igem.org/lazy-static/thumbnails/da656ba8-2a73-400a-93fe-68537629fff7.jpgIISER-Mohali: Judging Session (2023)[Wiki](https://2023.igem.wiki/iiser-mohali)https://static.igem.org/peertube/streaming-playlists/hls/e0d9ae15-2454-4663-937f-14e68dc7df12/f6745df0-1295-43a6-b2ca-b01ac30ce7c0-master.m3u8https://video.igem.org/videos/embed/tLp4oPAuAFfYt81VrFEpmf18000242023-11-09T05:56:09.900ZYES2023 Judging SessionsNOhttps://video.igem.org/w/iDFK3ikgAC6FL1Yp8D6YiKhttps://video.igem.org/lazy-static/thumbnails/0f4bc13f-65ef-4937-a058-faeada2e3074.jpgWageningenUR: Judging Session (2023)[Wiki](https://2023.igem.wiki/wageningenur)https://static.igem.org/peertube/streaming-playlists/hls/8eee5e5e-4879-4645-93be-515b03ee791d/853ce486-97d9-40f5-8296-8dfe7f7efb74-master.m3u8https://video.igem.org/videos/embed/iDFK3ikgAC6FL1Yp8D6YiK18000352023-11-09T06:05:57.529ZYES2023 Judging SessionsNOhttps://video.igem.org/w/hCCoUfUrRZeRinKg4TNZ8bhttps://video.igem.org/lazy-static/thumbnails/8e046439-4a2f-4e61-931e-f15965ab3b6a.jpgDay 1 - Startup Stage Kick-offWe are back in Paris! Join us for the exhilarating kick-off of the iGEM Grand Jamboree's Startup Stage in the heart of the Startup Village. Brace yourselves for a day filled with pioneering ideas and entrepreneurial spirit.https://static.igem.org/peertube/streaming-playlists/hls/86af6c63-ebdc-4cf6-9609-ad098bbe0924/b701a1ea-6997-4c33-8f28-16bab04007dd-master.m3u8https://video.igem.org/videos/embed/hCCoUfUrRZeRinKg4TNZ8b9000272023-11-03T01:55:12.615ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/qNjgx9tz2B12ucKrnXvR2Jhttps://video.igem.org/lazy-static/thumbnails/34aaae4c-256d-40ec-a170-26e22076736a.jpgOpening ShowOpening Showhttps://static.igem.org/peertube/streaming-playlists/hls/c8d2cc9b-0490-4c77-8f63-24bafeae4620/8c3fafac-fe2f-4e3f-a9eb-818fbc4cfeaf-master.m3u8https://video.igem.org/videos/embed/qNjgx9tz2B12ucKrnXvR2J170203052023-11-03T02:50:33.836ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/bJDrYMR6vbPjP1uyksV85whttps://video.igem.org/lazy-static/thumbnails/8c898d12-5e17-4f57-b041-dee1fb58cdc4.jpgResponsibility Conference: Opening Remarks Day 2Responsibility Conference: Opening Remarks Day 2https://static.igem.org/peertube/streaming-playlists/hls/56efb3fa-5139-4343-8b8b-cbdd80bce9ca/e4859321-227d-4475-9956-56e5ac2fd84f-master.m3u8https://video.igem.org/videos/embed/bJDrYMR6vbPjP1uyksV85w900062023-11-03T08:55:19.307ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/kHSMQ4gjGnroPjhVx1Qskwhttps://video.igem.org/lazy-static/thumbnails/d4a69227-e714-4ab6-8749-f26911fc84ec.jpgDay 2 - Startup Stage Kick-offGet ready for another day of entrepreneurial inspiration as we kick off Day 2 at the Startup Stage in the vibrant Startup Village. Explore the latest innovations and connect with forward-thinkers.https://static.igem.org/peertube/streaming-playlists/hls/9fb66dfd-9062-4da7-adb0-874772cb5b34/6ba28def-e29b-4bbf-9407-961a53234bd9-master.m3u8https://video.igem.org/videos/embed/kHSMQ4gjGnroPjhVx1Qskw900072023-11-03T09:15:21.997ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/2Hnt2eup82oHidE51Eh5fRhttps://video.igem.org/lazy-static/thumbnails/0e58534f-df42-45ed-af33-8ee219c121e7.jpgZJUT-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/zjut-china)https://static.igem.org/peertube/streaming-playlists/hls/0ddfdcaf-5c94-45b4-b5ec-316d1818fccd/e3aab3e2-393f-4164-a7a3-39bca9451877-master.m3u8https://video.igem.org/videos/embed/2Hnt2eup82oHidE51Eh5fR18000262023-11-09T07:40:48.112ZYES2023 Judging SessionsNOhttps://video.igem.org/w/h6xoemsTQaL6iRYEGLe7qFhttps://video.igem.org/lazy-static/thumbnails/4b20c3e5-442f-42bf-a1d8-8a0e31067d39.jpgFujian-United: Plaza Presentation (2023)Fujian-United: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/8258472d-d554-4a9a-bd88-3258366170b7/0634291e-03a7-4952-a8da-5d6cfd2f5fda-master.m3u8https://video.igem.org/videos/embed/h6xoemsTQaL6iRYEGLe7qF900042023-11-09T07:56:57.640ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/gqBQCfRXoePjQGkLxHCSPihttps://video.igem.org/lazy-static/thumbnails/53874e09-20d3-4c58-aa7a-c85d39dbbd1a.jpgThe-Kings-School-AU: Judging Session (2023)[Wiki](https://2023.igem.wiki/the-kings-school-au)https://static.igem.org/peertube/streaming-playlists/hls/7ce9043d-093b-49a7-b564-793a0a91f1cf/dbf7a6bd-2086-41de-ad39-e75da5f53a91-master.m3u8https://video.igem.org/videos/embed/gqBQCfRXoePjQGkLxHCSPi18000212023-11-09T08:32:36.802ZYES2023 Judging SessionsNOhttps://video.igem.org/w/pgWPMdQ1cZWko99RzDSwD2https://video.igem.org/lazy-static/thumbnails/c9e224f4-d2d4-4b73-9df6-2321e495bf6a.jpgBUCT: Judging Session (2023)[Wiki](https://2023.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/bc7c21d0-99e4-45a9-b2eb-7531df75919b/c25d69ab-1476-45e3-928b-8424d42aec39-master.m3u8https://video.igem.org/videos/embed/pgWPMdQ1cZWko99RzDSwD218000192023-11-09T09:01:15.335ZYES2023 Judging SessionsNOhttps://video.igem.org/w/fdpHaNUPW6axzsQRjMakzdhttps://video.igem.org/lazy-static/thumbnails/7f0cb114-5a91-4879-8ee3-dd45bf2a6da9.jpgEdinburgh: Judging Session (2023)[Wiki](https://2023.igem.wiki/edinburgh)https://static.igem.org/peertube/streaming-playlists/hls/731b7a69-682b-48da-8cc6-e75b20016fea/a1a13494-e3bb-4b38-b7ee-b7ddaf7848b0-master.m3u8https://video.igem.org/videos/embed/fdpHaNUPW6axzsQRjMakzd18000122023-11-09T08:42:18.174ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9PmDMkZZT39KmytPLotzd5https://video.igem.org/lazy-static/thumbnails/48fbbdbe-c491-4a3a-801d-9778d9b7ade8.jpgIISER-Bhopal: Judging Session (2023)[Wiki](https://2023.igem.wiki/iiser-bhopal)https://static.igem.org/peertube/streaming-playlists/hls/4765cb19-3c1d-47bb-b1bb-bb8d230162b8/a2a2ca39-fabd-49d6-bd29-e6ca0269573c-master.m3u8https://video.igem.org/videos/embed/9PmDMkZZT39KmytPLotzd518000132023-11-09T08:22:11.051ZYES2023 Judging SessionsNOhttps://video.igem.org/w/tX2saFWEGFZHxZyx2iruughttps://video.igem.org/lazy-static/thumbnails/75733a92-0a2d-4ee5-b54a-79bd2a8f8c4d.jpgIISER-Kolkata: Judging Session (2023)[Wiki](https://2023.igem.wiki/iiser-kolkata)https://static.igem.org/peertube/streaming-playlists/hls/e2558ba4-5654-4bdb-88a3-946d182644af/695e9cb3-5593-4d7c-a2ed-abfef8d125c3-master.m3u8https://video.igem.org/videos/embed/tX2saFWEGFZHxZyx2iruug18000622023-11-09T08:51:46.935ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3fezBtQGMnYfMRrwtmZfKyhttps://video.igem.org/lazy-static/thumbnails/b5af42f3-d4c7-4b74-a28f-7be00866f451.jpgUiOslo-Norway: Judging Session (2023)[Wiki](https://2023.igem.wiki/uioslo-norway)https://static.igem.org/peertube/streaming-playlists/hls/122f0f0b-acaa-4f4c-9d9e-461307c22ede/62ad1b31-cf3c-4676-b2a7-0f9f88dba31a-master.m3u8https://video.igem.org/videos/embed/3fezBtQGMnYfMRrwtmZfKy1800072023-11-09T09:20:40.483ZYES2023 Judging SessionsNOhttps://video.igem.org/w/ajNdhdcMd4GfDtf8cT6wabhttps://video.igem.org/lazy-static/thumbnails/4a499ad0-8c0f-4c00-81d2-a1566875eb98.jpgGEC-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/gec-china)https://static.igem.org/peertube/streaming-playlists/hls/4b821d62-4f91-481c-8d91-90cc38a5dae4/eef1691b-0ca6-4d20-9cf6-498730ac64d4-master.m3u8https://video.igem.org/videos/embed/ajNdhdcMd4GfDtf8cT6wab1800082023-11-09T09:10:59.318ZYES2023 Judging SessionsNOhttps://video.igem.org/w/oH495M7KmqmE7BzCUwdpoqhttps://video.igem.org/lazy-static/thumbnails/f8ee95de-d30d-4fa5-9dc1-324557e19f62.jpgSHSBNU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/shsbnu-china)https://static.igem.org/peertube/streaming-playlists/hls/b7e47ad3-1ba4-45ae-b81d-94fa292e8c10/ba8a1715-4d81-462e-8156-d40d56884cf3-master.m3u8https://video.igem.org/videos/embed/oH495M7KmqmE7BzCUwdpoq18000102023-11-09T09:38:44.910ZYES2023 Judging SessionsNOhttps://video.igem.org/w/rGrbXfGJXmPvNnHpoCiaFChttps://video.igem.org/lazy-static/thumbnails/80964f2f-78d2-44cb-8917-c781148eea94.jpgNANJING-NFLSFC: Plaza Presentation (2023)NANJING-NFLSFC: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/d019bd8f-a5cd-4ab7-8022-b250156ef926/ebf92160-2ea2-4da5-9b53-bdb628041b5a-master.m3u8https://video.igem.org/videos/embed/rGrbXfGJXmPvNnHpoCiaFC9000232023-11-09T09:55:30.613ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/4R9FFatC7EbZkbqaFfLEuJhttps://video.igem.org/lazy-static/thumbnails/d38d9288-c796-40de-8c8d-d713268214cf.jpgHUBU-WUHAN-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/hubu-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/1f283663-1614-42da-85b2-3c9d08bafb3a/b5e3a222-6147-4d95-8909-654f2226eb07-master.m3u8https://video.igem.org/videos/embed/4R9FFatC7EbZkbqaFfLEuJ18000222023-11-09T10:21:26.201ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6n6MhqHSCLmXZpMWCsFAtqhttps://video.igem.org/lazy-static/thumbnails/c9f892cd-0dc2-4f3c-98b8-d85d7ddd65cd.jpgHUST-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/hust-china)https://static.igem.org/peertube/streaming-playlists/hls/2b6fdffe-bb28-4c3c-b3b2-81a032384636/c51e5a1b-d7f5-4965-b01e-597470ae7723-master.m3u8https://video.igem.org/videos/embed/6n6MhqHSCLmXZpMWCsFAtq180004712023-11-09T10:40:54.580ZYES2023 Judging SessionsNOhttps://video.igem.org/w/ojZqbZt1rrNLJsdKnxge4Nhttps://video.igem.org/lazy-static/thumbnails/8aaf28af-9ffa-4241-bce3-964341986230.jpgYangzhouNOFLS: Judging Session (2023)[Wiki](https://2023.igem.wiki/yangzhounofls)https://static.igem.org/peertube/streaming-playlists/hls/b4cfd2a9-99a5-4e9b-8ce4-5a23887d87d8/14ea8c1b-0384-46ac-a839-b451b06baabb-master.m3u8https://video.igem.org/videos/embed/ojZqbZt1rrNLJsdKnxge4N18000132023-11-09T11:17:41.880ZYES2023 Judging SessionsNOhttps://video.igem.org/w/rNgruynnEvWuAxiJdgKqNShttps://video.igem.org/lazy-static/thumbnails/77b677bc-bf30-4a3c-a6d0-f36bef1626d0.jpgAachen: Judging Session (2023)[Wiki](https://2023.igem.wiki/aachen)https://static.igem.org/peertube/streaming-playlists/hls/d0ea31e2-a119-43e2-b8b2-c4716003ee26/806b5418-0c4a-4b17-94af-25a3eefd2b6c-master.m3u8https://video.igem.org/videos/embed/rNgruynnEvWuAxiJdgKqNS18000322023-11-09T11:26:51.754ZYES2023 Judging SessionsNOhttps://video.igem.org/w/cPQfGvA9eX8AwF6vcUmp1Bhttps://video.igem.org/lazy-static/thumbnails/0218239b-f587-40ff-8308-d40b87d90495.jpgZhejiang-United: Judging Session (2023)[Wiki](https://2023.igem.wiki/zhejiang-united)https://static.igem.org/peertube/streaming-playlists/hls/5fc2383c-c8ce-49e4-a4d3-638e392d1b5f/7e522a6c-4a1e-4d27-8e9c-345e0465f2f4-master.m3u8https://video.igem.org/videos/embed/cPQfGvA9eX8AwF6vcUmp1B18000262023-11-09T11:00:10.664ZYES2023 Judging SessionsNOhttps://video.igem.org/w/owD3s9RucQVCtq8n8JYAAvhttps://video.igem.org/lazy-static/thumbnails/5ab5d9d3-5478-4492-864e-f86cf0603e09.jpgMakerere-Uganda: Judging Session (2023)[Wiki](https://2023.igem.wiki/makerere-uganda)https://static.igem.org/peertube/streaming-playlists/hls/b6703114-ad2e-465d-828f-29186b8dd619/ad0c7d70-1b42-4fdc-bdf8-c78451e5d6bc-master.m3u8https://video.igem.org/videos/embed/owD3s9RucQVCtq8n8JYAAv18000212023-11-09T11:45:47.491ZYES2023 Judging SessionsNOhttps://video.igem.org/w/aQc3AaYnv74Xb2XbCZPqqrhttps://video.igem.org/lazy-static/thumbnails/560a0349-5ca2-4dd1-ae35-94b2325a1837.jpgUIncheon: Judging Session (2023)[Wiki](https://2023.igem.wiki/uincheon)https://static.igem.org/peertube/streaming-playlists/hls/4f9cc162-011c-45c6-99bf-527633e43a51/f75a584a-3ead-4325-a7ee-6b18ba0b3c9d-master.m3u8https://video.igem.org/videos/embed/aQc3AaYnv74Xb2XbCZPqqr1800032023-11-09T11:55:31.334ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8dv8tkAeFACKhZ42bkD9m9https://video.igem.org/lazy-static/thumbnails/59bf28e4-92e1-4edf-834e-753c559f60b3.jpgBUCT-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/buct-china)https://static.igem.org/peertube/streaming-playlists/hls/3a6ed8dd-8f60-47cb-a108-8797bdba10a8/69e28186-d52d-41fb-a183-4a952f9fe926-master.m3u8https://video.igem.org/videos/embed/8dv8tkAeFACKhZ42bkD9m918000232023-11-09T11:36:04.298ZYES2023 Judging SessionsNOhttps://video.igem.org/w/11wmr5e3R6kmhgzrGhd4CRhttps://video.igem.org/lazy-static/thumbnails/12550d20-7ecf-4d83-805b-4f549a253e7c.jpgNU-Kazakhstan: Judging Session (2023)[Wiki](https://2023.igem.wiki/nu-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/0012b48b-c4b3-4ef2-915a-62e6f23c9965/e7d99d49-1250-4f25-836f-d565b14f75aa-master.m3u8https://video.igem.org/videos/embed/11wmr5e3R6kmhgzrGhd4CR18000102023-11-09T12:13:47.818ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8MvXHMbkeygTnmr1SCjaSZhttps://video.igem.org/lazy-static/thumbnails/2881affc-1a86-4415-97f6-209dd0d4c4c9.jpgSZ-SHD: Judging Session (2023)[Wiki](https://2023.igem.wiki/sz-shd)https://static.igem.org/peertube/streaming-playlists/hls/3f0ae779-f0de-4fa0-9f80-6ed56fa508a1/7d5486b3-460f-4d58-ad86-cf6cb62f83ef-master.m3u8https://video.igem.org/videos/embed/8MvXHMbkeygTnmr1SCjaSZ18000482023-11-09T12:23:07.957ZYES2023 Judging SessionsNOhttps://video.igem.org/w/2XQwzEBHtnSH9KwPwm8MgPhttps://video.igem.org/lazy-static/thumbnails/50897296-ef02-43ad-9929-0db206b72313.jpgBIT: Judging Session (2023)[Wiki](https://2023.igem.wiki/bit)https://static.igem.org/peertube/streaming-playlists/hls/0fe4f3b5-9a36-4c4e-bc95-a60391a9d7c1/bd2386a4-fbc8-4dcd-896c-a727268e26e5-master.m3u8https://video.igem.org/videos/embed/2XQwzEBHtnSH9KwPwm8MgP18000172023-11-09T12:49:44.002ZYES2023 Judging SessionsNOhttps://video.igem.org/w/jLvKxuP42SBHKaPfr2QwK1https://video.igem.org/lazy-static/thumbnails/ff821243-4c88-4388-8547-95426e60145a.jpgXHD-WuHan-Pro-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/xhd-wuhan-pro-china)https://static.igem.org/peertube/streaming-playlists/hls/97fb8e6a-13d7-4de0-a870-b493f337ad26/a59b3ba5-a488-4089-939b-1ec69344a5ad-master.m3u8https://video.igem.org/videos/embed/jLvKxuP42SBHKaPfr2QwK11800032023-11-09T12:59:04.621ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qVfewJSGmfvhJTbYCG3cfohttps://video.igem.org/lazy-static/thumbnails/d77e2d73-5e01-4184-8ba4-f4492d653367.jpgCJUH-JLU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/cjuh-jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/c9ca84eb-7014-4241-b3fc-580f94b4631e/7e6561ec-aa28-4f6d-8345-096606e1070a-master.m3u8https://video.igem.org/videos/embed/qVfewJSGmfvhJTbYCG3cfo18000982023-11-09T13:17:07.863ZYES2023 Judging SessionsNOhttps://video.igem.org/w/gQWrh96q9aWUXQDecUgcvbhttps://video.igem.org/lazy-static/thumbnails/5b77dad7-21a6-4c5d-99d5-a78f62bfb0c4.jpgCPU-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/cpu-china)https://static.igem.org/peertube/streaming-playlists/hls/804e5400-8ca5-47bc-b349-d8f800cb8060/2089f4a6-a17c-4a7b-8e25-5cdd3ab18388-master.m3u8https://video.igem.org/videos/embed/gQWrh96q9aWUXQDecUgcvb18000542023-11-09T13:53:28.660ZYES2023 Judging SessionsNOhttps://video.igem.org/w/hkU9a75YnaEfTiKRYLqERKhttps://video.igem.org/lazy-static/thumbnails/87a97e76-2d87-4119-b08c-d8f6dad64a5e.jpgIonis-Paris: Judging Session (2023)[Wiki](https://2023.igem.wiki/ionis-paris)https://static.igem.org/peertube/streaming-playlists/hls/84597ba5-da23-4f8f-a419-c3d5b8d278dd/6df9c784-9085-46db-91f2-41e4abe0b61a-master.m3u8https://video.igem.org/videos/embed/hkU9a75YnaEfTiKRYLqERK18000142023-11-09T13:08:22.961ZYES2023 Judging SessionsNOhttps://video.igem.org/w/nJRnQue4Wfgpixofddk1Qkhttps://video.igem.org/lazy-static/thumbnails/bb98992f-9c64-4a41-8cf0-7c49ab53f97f.jpgRPTU-Kaiserslautern: Judging Session (2023)[Wiki](https://2023.igem.wiki/rptu-kaiserslautern)https://static.igem.org/peertube/streaming-playlists/hls/b00b945c-9d6c-4ab3-b8cb-1c4721ba87ab/5be80572-9bb8-4e85-b351-b437b4636ce2-master.m3u8https://video.igem.org/videos/embed/nJRnQue4Wfgpixofddk1Qk18000212023-11-09T13:26:33.160ZYES2023 Judging SessionsNOhttps://video.igem.org/w/oXBMBRmazPpjeXf8hne3eThttps://video.igem.org/lazy-static/thumbnails/2ace7840-ec86-4880-a76c-d15ba1a610f9.jpgHKSSC: Judging Session (2023)[Wiki](https://2023.igem.wiki/hkssc)https://static.igem.org/peertube/streaming-playlists/hls/b9ed0318-b6bf-4494-8ac3-60e40a307585/9e610d7d-a358-49ce-bbd5-73194a8ce7d7-master.m3u8https://video.igem.org/videos/embed/oXBMBRmazPpjeXf8hne3eT18000102023-11-09T14:02:54.974ZYES2023 Judging SessionsNOhttps://video.igem.org/w/xfHsow7dHuBNf6zj9T1edshttps://video.igem.org/lazy-static/thumbnails/e7b2be26-fc76-429e-8e7f-2a837526a223.jpgSMS-Shenzhen: Judging Session (2023)[Wiki](https://2023.igem.wiki/sms-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/fd19423e-ec9d-40c2-adcb-456f0493a0d6/385261d9-46fc-4d00-97f1-de5d983f8fe0-master.m3u8https://video.igem.org/videos/embed/xfHsow7dHuBNf6zj9T1eds18000132023-11-09T14:29:42.827ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9PX8nELiFENcucg8Ku4Hh6https://video.igem.org/lazy-static/thumbnails/70246616-70bc-479c-aa09-94eb386de2b5.jpgSession 3: Bioeconomies with a Conscience: Nurturing Responsible DevelopmentThis session aims to delve into the multifaceted dimensions of a future with developed bioeconomies, exploring the opportunities, responsibilities, and challenges inherent in commercializing and scaling science and technology (S&T) to meet both national security and economic development priorities. The emergence of developed bioeconomies presents an unprecedented opportunity to revolutionize industries, drive economic growth, and address pressing global challenges. However, this transformation requires careful consideration of responsibilities and ethical considerations.https://static.igem.org/peertube/streaming-playlists/hls/477b0a2e-759f-42e0-8fbf-a36cdc1884c1/01fbcf60-5363-4d65-8d9f-4cdf81123f3c-master.m3u8https://video.igem.org/videos/embed/9PX8nELiFENcucg8Ku4Hh654000172023-11-03T14:25:12.797ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/efWKvur5167ToxFadacpBUhttps://video.igem.org/lazy-static/thumbnails/24f364a2-18f1-47b3-a073-206b58365868.jpgSCU-China: Plaza Presentation (2023)SCU-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/6b5cf4d2-6f9b-4a41-be2b-426fb18d47e6/b7a1ce71-c38f-4c0e-8740-6e5b773534a6-master.m3u8https://video.igem.org/videos/embed/efWKvur5167ToxFadacpBU900002023-11-09T15:35:51.755ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/ji2TUpB6fPDfv8ZdotB8nzhttps://video.igem.org/lazy-static/thumbnails/c979b583-6042-48be-8f50-dac52a4f2d13.jpgShanghai-HS: Judging Session (2023)[Wiki](https://2023.igem.wiki/shanghai-hs)https://static.igem.org/peertube/streaming-playlists/hls/94254ec7-d547-415a-b0b5-22b56e819b47/75b408da-1cdd-4c2e-a61b-c051f5f0285c-master.m3u8https://video.igem.org/videos/embed/ji2TUpB6fPDfv8ZdotB8nz18000112023-11-09T15:45:40.091ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uDBCs9Zx18D7EicPh6Zj2phttps://video.igem.org/lazy-static/thumbnails/6deba7c8-ae2c-4e7e-8948-df4be911dddf.jpgBIBS-beijing-china: Judging Session (2023)[Wiki](https://2023.igem.wiki/bibs-beijing-china)https://static.igem.org/peertube/streaming-playlists/hls/e8005bd9-bcd8-4933-8ef7-323f7a08d151/0721e4fd-d929-4040-bb06-cdfa4bebb115-master.m3u8https://video.igem.org/videos/embed/uDBCs9Zx18D7EicPh6Zj2p18000122023-11-09T15:55:41.375ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6BbQZzsoi52e93vkieseZHhttps://video.igem.org/lazy-static/thumbnails/c642af9a-8752-4410-8774-c30e9b9c6002.jpgAustin-UTexas: Judging Session (2023)[Wiki](https://2023.igem.wiki/austin-utexas)https://static.igem.org/peertube/streaming-playlists/hls/2d676895-bddf-4f9d-a504-a7c09d8e8ea7/9b280332-199d-476e-987c-865abe351c05-master.m3u8https://video.igem.org/videos/embed/6BbQZzsoi52e93vkieseZH18000602023-11-09T16:05:24.106ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wpJXoM2V7hNVqeAdWugmCohttps://video.igem.org/lazy-static/thumbnails/08937e79-806d-46b2-ae0c-942969707ca6.jpgDUT-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/dut-china)https://static.igem.org/peertube/streaming-playlists/hls/f642bd0e-2e86-41aa-9e6e-deb8cdcfa5e6/739511a6-4cc0-448b-b8b0-9acf2ca1ef44-master.m3u8https://video.igem.org/videos/embed/wpJXoM2V7hNVqeAdWugmCo18000372023-11-09T16:15:01.236ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9z7BkDNoPBXMVGhc36gmHXhttps://video.igem.org/lazy-static/thumbnails/6a3921a1-0a04-4257-be8d-6bbc5f2b4deb.jpgUNSW-Australia: Judging Session (2023)[Wiki](https://2023.igem.wiki/unsw-australia)https://static.igem.org/peertube/streaming-playlists/hls/4568ba10-31fe-4079-94bc-03a849d0b7f9/0b356f6a-e45c-4d82-968a-8dd00d461c29-master.m3u8https://video.igem.org/videos/embed/9z7BkDNoPBXMVGhc36gmHX18000102023-11-09T16:24:07.832ZYES2023 Judging SessionsNOhttps://video.igem.org/w/mKKNSawN1BUGeafnY6x45khttps://video.igem.org/lazy-static/thumbnails/848679f2-e171-44b2-a21f-96da0c12d48e.jpgHKUST: Judging Session (2023)[Wiki](https://2023.igem.wiki/hkust)https://static.igem.org/peertube/streaming-playlists/hls/a812c0c1-e52d-436b-91ca-74b01e6c50cf/487813c9-22c0-4517-85f5-7e6470ffeb9a-master.m3u8https://video.igem.org/videos/embed/mKKNSawN1BUGeafnY6x45k18000192023-11-09T16:33:19.010ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6gv4XRgtEkRWSxMh3PdFuRhttps://video.igem.org/lazy-static/thumbnails/de1d3228-ff6a-4a2e-9728-847bc9a1dfc3.jpgINSAENSLyon1: Judging Session (2023)[Wiki](https://2023.igem.wiki/insaenslyon1)https://static.igem.org/peertube/streaming-playlists/hls/2aa7c38b-2e39-4570-9e1e-aa57503e1195/b3480f45-3cd2-4d6e-9ca5-8bb50f9d5ad3-master.m3u8https://video.igem.org/videos/embed/6gv4XRgtEkRWSxMh3PdFuR18000462023-11-09T16:42:05.428ZYES2023 Judging SessionsNOhttps://video.igem.org/w/c7zSNdafNpaUVQc7WJw3rThttps://video.igem.org/lazy-static/thumbnails/2843ede5-5976-49e8-ba20-2baec46ac8c0.jpgMingdao: Judging Session (2023)[Wiki](https://2023.igem.wiki/mingdao)https://static.igem.org/peertube/streaming-playlists/hls/59ffdd55-8f0a-4a05-8fdb-6adc4277b835/6b3291fe-c5e5-4f4c-9a73-15257469e9fa-master.m3u8https://video.igem.org/videos/embed/c7zSNdafNpaUVQc7WJw3rT1800092023-11-09T16:51:11.087ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uaiFX1LUzaRVdeQofLMpuWhttps://video.igem.org/lazy-static/thumbnails/1e721a26-1323-4368-99b3-e642f86eb9b4.jpgRUBochum: Plaza Presentation (2023)RUBochum: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/e40c7a3d-6ee4-4b5b-9b99-0c4e3b7acdd2/f58073ac-f84c-4080-a9ca-59865b588780-master.m3u8https://video.igem.org/videos/embed/uaiFX1LUzaRVdeQofLMpuW900022023-11-09T17:08:28.967ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/6DxfkF7i52TR7PPa3uXjG9https://video.igem.org/lazy-static/thumbnails/d9ff779c-5fd4-4129-94f0-6a0912a3903e.jpgPINGHE: Judging Session (2023)[Wiki](https://2023.igem.wiki/pinghe)https://static.igem.org/peertube/streaming-playlists/hls/2dbb7836-4815-4e3b-95e7-eceb2e3e49f8/52d7d967-2a74-4a95-83b5-7ad0c7c36e6a-master.m3u8https://video.igem.org/videos/embed/6DxfkF7i52TR7PPa3uXjG918000122023-11-09T17:17:56.173ZYES2023 Judging SessionsNOhttps://video.igem.org/w/feibRrJRNktUpVGJq79ETDhttps://video.igem.org/lazy-static/thumbnails/f079a12f-c89b-46ef-bc0e-dc821df639ae.jpgBonn-Rheinbach: Judging Session (2023)[Wiki](https://2023.igem.wiki/bonn-rheinbach)https://static.igem.org/peertube/streaming-playlists/hls/733b33c2-50d5-460b-b51e-96c9cde3d32b/a2d185a5-5d6f-4b3f-aa62-cdbce8dfc880-master.m3u8https://video.igem.org/videos/embed/feibRrJRNktUpVGJq79ETD1800062023-11-09T17:27:56.127ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wbAZoncMQCYNP2Gz1qFLHDhttps://video.igem.org/lazy-static/thumbnails/d10d62d4-325b-42e8-b850-d26937679176.jpgHainanU-China: Plaza Presentation (2023)HainanU-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/f46d2915-bd3b-41af-91dc-41790f5b7277/d7545542-a46a-45b0-a3ba-50f85df24116-master.m3u8https://video.igem.org/videos/embed/wbAZoncMQCYNP2Gz1qFLHD900022023-11-09T17:35:51.390ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/x41HhTTzKWCYajCHDip8Rkhttps://video.igem.org/lazy-static/thumbnails/69846e62-15fa-47d0-9c50-a842a2939e19.jpgBulgaria: Plaza Presentation (2023)Bulgaria: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/fb76f7ef-f490-42d4-b767-d21951b85531/63d1a02c-4c13-466b-aee4-10ce5d03fe9d-master.m3u8https://video.igem.org/videos/embed/x41HhTTzKWCYajCHDip8Rk900012023-11-09T17:45:11.406ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/1LffSF5JGot3doRoLavAGzhttps://video.igem.org/lazy-static/thumbnails/aad66a54-bccb-4fef-b1a4-41bf0183b76e.jpgNJU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/nju-china)https://static.igem.org/peertube/streaming-playlists/hls/062d8300-6a2d-459b-8c22-f88cbc674591/a4774f9d-4d9f-4425-b217-7172631c5ff2-master.m3u8https://video.igem.org/videos/embed/1LffSF5JGot3doRoLavAGz18000122023-11-09T17:54:29.630ZYES2023 Judging SessionsNOhttps://video.igem.org/w/cU1dKgkNYMcRAVKUZJrzJ2https://video.igem.org/lazy-static/thumbnails/deb57d70-c6c5-4626-ac95-5d40742c67dd.jpgHongKong-JSS: Judging Session (2023)[Wiki](https://2023.igem.wiki/hongkong-jss)https://static.igem.org/peertube/streaming-playlists/hls/60575633-f4e1-44fc-a6cf-61c3e4955bd1/f15ca0d7-56cf-448f-8bb6-f0e5681b73e9-master.m3u8https://video.igem.org/videos/embed/cU1dKgkNYMcRAVKUZJrzJ218000942023-11-09T18:03:28.919ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6erAHXRq5MyZLEw8D568tkhttps://video.igem.org/lazy-static/thumbnails/f6327e83-7f02-4169-8b5d-4578316a7b2f.jpgLiuan-Shanghai: Judging Session (2023)[Wiki](https://2023.igem.wiki/liuan-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/2a5e2357-bef9-43e0-a9c3-35cbcdaaf215/293e696f-9fdf-4fc9-9573-9ab98bbeb334-master.m3u8https://video.igem.org/videos/embed/6erAHXRq5MyZLEw8D568tk1800002023-11-09T18:12:17.772ZYES2023 Judging SessionsNOhttps://video.igem.org/w/mMDJesKGZXBKbY658ADasihttps://video.igem.org/lazy-static/thumbnails/93665ddf-4a92-44b5-b642-1b43b7b2a53e.jpgSquirrel-CHN: Judging Session (2023)[Wiki](https://2023.igem.wiki/squirrel-chn)https://static.igem.org/peertube/streaming-playlists/hls/a8567e5f-5010-4281-b2f7-4b0f38dd9501/ab0402df-310c-41bc-933b-668b0e221a11-master.m3u8https://video.igem.org/videos/embed/mMDJesKGZXBKbY658ADasi1800062023-11-09T18:21:15.211ZYES2023 Judging SessionsNOhttps://video.igem.org/w/sJw44mwnkvi9JxcryFVsaxhttps://video.igem.org/lazy-static/thumbnails/357781e6-3c09-47f4-9efe-0ea2f587da1b.jpgCU-Boulder: Judging Session (2023)[Wiki](https://2023.igem.wiki/cu-boulder)https://static.igem.org/peertube/streaming-playlists/hls/d87d5d38-bf76-446d-9524-a74b89b97e49/991af62b-2d22-4e12-b255-eca5ca43eeac-master.m3u8https://video.igem.org/videos/embed/sJw44mwnkvi9JxcryFVsax1800072023-11-09T18:30:59.275ZYES2023 Judging SessionsNOhttps://video.igem.org/w/ptExBPtHXEh3mkumaskEsThttps://video.igem.org/lazy-static/thumbnails/e2c8e940-c35c-4e2f-bc68-467438b30eb9.jpgAix-Marseille: Judging Session (2023)[Wiki](https://2023.igem.wiki/aix-marseille)https://static.igem.org/peertube/streaming-playlists/hls/be1f0676-ce85-4f9c-af73-95c53ebe66a7/498d4ad2-3836-4ddb-b43c-1d70849aeb41-master.m3u8https://video.igem.org/videos/embed/ptExBPtHXEh3mkumaskEsT18005132023-11-09T18:40:45.403ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4uVse79GNmYpZZgcHmnDydhttps://video.igem.org/lazy-static/thumbnails/94eb6c6a-aa25-435f-b409-2b8f73b5a769.jpgOUC-Haide: Judging Session (2023)[Wiki](https://2023.igem.wiki/ouc-haide)https://static.igem.org/peertube/streaming-playlists/hls/1c552ebf-9cbb-4a8d-86a0-e28270baafe8/0f8b4e53-d907-464b-9987-b8b730664671-master.m3u8https://video.igem.org/videos/embed/4uVse79GNmYpZZgcHmnDyd18000372023-11-09T18:50:28.011ZYES2023 Judging SessionsNOhttps://video.igem.org/w/jvzckbshwbD94vTtJjkdavhttps://video.igem.org/lazy-static/thumbnails/5b3b7dfe-bfd3-4daf-8e96-dc18019ef7c6.jpgFSHS-GD: Judging Session (2023)[Wiki](https://2023.igem.wiki/fshs-gd)https://static.igem.org/peertube/streaming-playlists/hls/95e585c7-7e68-4284-bf0c-fbc547301b6f/32439c85-2377-47cc-8136-c0b3f40c0e70-master.m3u8https://video.igem.org/videos/embed/jvzckbshwbD94vTtJjkdav18000112023-11-09T19:16:26.373ZYES2023 Judging SessionsNOhttps://video.igem.org/w/55iwkt1piYS3s4kJirGv1ohttps://video.igem.org/lazy-static/thumbnails/d458d013-615c-4bdc-8f11-346e4867ae21.jpgNPU-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/npu-china)https://static.igem.org/peertube/streaming-playlists/hls/20fe5423-b016-4ef5-989f-83cb89b0369a/e23a0d64-a299-4c1e-a595-d89658a9f427-master.m3u8https://video.igem.org/videos/embed/55iwkt1piYS3s4kJirGv1o18000132023-11-09T19:26:22.834ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3HCStaxCqdquhVSTq7B1EPhttps://video.igem.org/lazy-static/thumbnails/ec091d78-e6da-448a-b6db-2e6aa564fa98.jpgTuebingen: Judging Session (2023)[Wiki](https://2023.igem.wiki/tuebingen)https://static.igem.org/peertube/streaming-playlists/hls/16027e71-c666-4ef4-bdcf-b657c21a2263/4e87b302-f2a7-4b56-a91c-14b41fd20d87-master.m3u8https://video.igem.org/videos/embed/3HCStaxCqdquhVSTq7B1EP18000112023-11-09T19:07:22.414ZYES2023 Judging SessionsNOhttps://video.igem.org/w/o7R1RYCAoQZQdw5rWbvesghttps://video.igem.org/lazy-static/thumbnails/e999f143-b3fc-4470-a0b4-6659ac952598.jpgUGM-Indonesia: Judging Session (2023)[Wiki](https://2023.igem.wiki/ugm-indonesia)https://static.igem.org/peertube/streaming-playlists/hls/b31db838-e595-459a-bbd9-c50a1061fdef/8ecebf1e-c9af-4019-9818-3f2f05c57bf8-master.m3u8https://video.igem.org/videos/embed/o7R1RYCAoQZQdw5rWbvesg18000892023-11-09T19:35:54.864ZYES2023 Judging SessionsNOhttps://video.igem.org/w/5WUx3TXbDNdQuFRNRQPaRXhttps://video.igem.org/lazy-static/thumbnails/b493e3ad-2093-4ed9-8fe8-d924dfc19b14.jpgHS-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/hs-china)https://static.igem.org/peertube/streaming-playlists/hls/280f1822-74b2-418b-a943-bc554fee268d/3060b1b6-0e72-4d13-b727-30a13a813f34-master.m3u8https://video.igem.org/videos/embed/5WUx3TXbDNdQuFRNRQPaRX18000142023-11-09T19:45:34.731ZYES2023 Judging SessionsNOhttps://video.igem.org/w/t27uTLEdaRfeu89CqTuBaihttps://video.igem.org/lazy-static/thumbnails/1eebd897-d18c-41c7-ba04-a277f0917c6e.jpgNUS-Singapore: Judging Session (2023)[Wiki](https://2023.igem.wiki/nus-singapore)https://static.igem.org/peertube/streaming-playlists/hls/dace7e01-d975-4713-bb3a-fc0fbf875397/e5d83c83-5cfd-4eea-925e-71261c0e74b7-master.m3u8https://video.igem.org/videos/embed/t27uTLEdaRfeu89CqTuBai180052032023-11-09T19:55:25.142ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8umogXTorUrGo2MFywmuYyhttps://video.igem.org/lazy-static/thumbnails/08580878-e262-4a3c-91dd-2876ba8939cc.jpgTsukuba: Plaza Presentation (2023)Tsukuba: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/3ca55bb9-96d9-4286-8c4d-8c88ca9d5500/57a8444b-bf7d-4c10-92ec-1539deed1778-master.m3u8https://video.igem.org/videos/embed/8umogXTorUrGo2MFywmuYy900012023-11-09T20:03:59.982ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/ca5NdgZq1cZqx834t7Cvynhttps://video.igem.org/lazy-static/thumbnails/7a8fbe89-774b-44ce-a945-fa5eedf25d40.jpgUI-Indonesia: Judging Session (2023)[Wiki](https://2023.igem.wiki/ui-indonesia)https://static.igem.org/peertube/streaming-playlists/hls/5a592ce0-0c1e-470d-84bb-8cba629cd509/3dbc17f1-d9ab-4d8b-8294-7dd5f531ed11-master.m3u8https://video.igem.org/videos/embed/ca5NdgZq1cZqx834t7Cvyn18000162023-11-09T20:13:03.474ZYES2023 Judging SessionsNOhttps://video.igem.org/w/aH4HSkcd5q6BqKVmJKWxaghttps://video.igem.org/lazy-static/thumbnails/478a120c-2dd2-4b66-a91b-7bf55370b7f5.jpgLethbridge: Judging Session (2023)[Wiki](https://2023.igem.wiki/lethbridge)https://static.igem.org/peertube/streaming-playlists/hls/4e9e0943-84a3-4124-8d91-d8401935b455/474b352d-f9a6-4860-9a1d-698f64fc784b-master.m3u8https://video.igem.org/videos/embed/aH4HSkcd5q6BqKVmJKWxag18000202023-11-09T20:22:31.177ZYES2023 Judging SessionsNOhttps://video.igem.org/w/16j7kitzuH6CXJcy6h5o3Nhttps://video.igem.org/lazy-static/thumbnails/ef5d4bc9-fe5b-4bc2-ac65-f94a7d1a48e0.jpgHUBU-SKY-China: Plaza Presentation (2023)HUBU-SKY-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/00bde108-4336-493f-886d-875fad4f4afa/4d853e1c-9200-4fac-85b2-d275a858ced3-master.m3u8https://video.igem.org/videos/embed/16j7kitzuH6CXJcy6h5o3N900012023-11-09T20:39:28.570ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/8jsF12jGWnC7ZqHVoEkeimhttps://video.igem.org/lazy-static/thumbnails/9c734e80-5380-49d6-8a52-ea5d46fe9d15.jpgSquirrel-Beijing-I: Judging Session (2023)[Wiki](https://2023.igem.wiki/squirrel-beijing-i)https://static.igem.org/peertube/streaming-playlists/hls/3b43cbc2-edda-4c38-b661-79c57bb48f9a/cba3d41d-f9f3-4a7d-86fd-0c29f6fc27ec-master.m3u8https://video.igem.org/videos/embed/8jsF12jGWnC7ZqHVoEkeim1800052023-11-09T20:48:48.987ZYES2023 Judging SessionsNOhttps://video.igem.org/w/iJHz9145GXF7Z8Nyw4sqxAhttps://video.igem.org/lazy-static/thumbnails/8cad37a5-5e1a-4628-bdb9-fd5daecd45e4.jpgAFMU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/afmu-china)https://static.igem.org/peertube/streaming-playlists/hls/8fa236fd-d691-4540-b1b4-eee9c9e4d688/39c27c8c-ff68-400d-82c7-85a4aacea12b-master.m3u8https://video.igem.org/videos/embed/iJHz9145GXF7Z8Nyw4sqxA18000382023-11-09T20:57:30.927ZYES2023 Judging SessionsNOhttps://video.igem.org/w/si9AdDNFkfqWwveiG8RHc4https://video.igem.org/lazy-static/thumbnails/0706ef08-65ab-4908-a5ad-bdc5be74636d.jpgRDFZ-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/rdfz-china)https://static.igem.org/peertube/streaming-playlists/hls/d4f28b02-6859-4616-b9cb-ab87d6eaaf1d/5e255067-1d16-441f-aee7-78515067cb1e-master.m3u8https://video.igem.org/videos/embed/si9AdDNFkfqWwveiG8RHc418000272023-11-09T21:16:01.621ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qzTY2PdfRYz6NqQfDGC5qKhttps://video.igem.org/lazy-static/thumbnails/49a9c002-e2b9-4636-bb49-cccfb5a76bad.jpgIIT-Delhi: Judging Session (2023)[Wiki](https://2023.igem.wiki/iit-delhi)https://static.igem.org/peertube/streaming-playlists/hls/c716e5c0-96a3-4310-8a70-546b209841eb/7af22b4e-d7b0-47bf-94a9-cc3240685b59-master.m3u8https://video.igem.org/videos/embed/qzTY2PdfRYz6NqQfDGC5qK18000112023-11-09T21:06:28.467ZYES2023 Judging SessionsNOhttps://video.igem.org/w/5x5Ky3p2cnUPT2aokdfVrwhttps://video.igem.org/lazy-static/thumbnails/03b91b8f-1a62-40ea-8061-bc8c85bff179.jpgNanjing-BioXstem: Judging Session (2023)[Wiki](https://2023.igem.wiki/nanjing-bioxstem)https://static.igem.org/peertube/streaming-playlists/hls/24bb8a13-680d-43a8-abe3-42445f90e70c/751adb94-559d-46e4-9fad-660ca0266358-master.m3u8https://video.igem.org/videos/embed/5x5Ky3p2cnUPT2aokdfVrw18000132023-11-09T21:25:44.744ZYES2023 Judging SessionsNOhttps://video.igem.org/w/erRbnJQ8WRcR7PV26qJSCYhttps://video.igem.org/lazy-static/thumbnails/6797ef27-cdc5-4062-90fd-2291c319c520.jpgREC-CHENNAI: Judging Session (2023)[Wiki](https://2023.igem.wiki/rec-chennai)https://static.igem.org/peertube/streaming-playlists/hls/6ce2b452-d5c1-42bf-b2ed-b204d6367358/5b3deea2-34e6-41f8-9383-dd604e3bbff0-master.m3u8https://video.igem.org/videos/embed/erRbnJQ8WRcR7PV26qJSCY18000462023-11-09T21:35:39.118ZYES2023 Judging SessionsNOhttps://video.igem.org/w/ho88H1sdeNTZtpe74RXR7Bhttps://video.igem.org/lazy-static/thumbnails/3d922c70-7e7f-4371-95f4-7f88c59ef70a.jpgSynthetic Biology in Space: How can Synthetic Biology Help Europe Explore Space?Synthetic biology holds promise in advancing space exploration and overcome common challenges faced by space biology projects today. It can facilitate biomanufacturing, produce sustainable food, offer radiation protection, enable environmental monitoring, aid in terraforming, support biological research and generate biofuels. Moreover, synthetic biology can accelerate resource utilization, supports long-term habitation, and advances scientific understanding, making it a crucial asset for the future of space exploration. In this context, this talk will highlight some of the common challenges in space biology projects and show the exciting possibilities that synthetic biology can offers for the future of space exploration in Europe.https://static.igem.org/peertube/streaming-playlists/hls/84a8fa2f-e350-465b-a2a8-c070018463eb/f7304cd0-c966-42ad-bfbf-d3f65b2ecec8-master.m3u8https://video.igem.org/videos/embed/ho88H1sdeNTZtpe74RXR7B9000102023-11-03T16:22:14.643ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/iyrPFsGkNoAfFANcH4ARhohttps://video.igem.org/lazy-static/thumbnails/0ce964c2-a7fb-4aca-9439-61e242f4bf7d.jpgStanford: Plaza Presentation (2023)Stanford: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/8e33123f-5623-4c7b-a89b-a8cdf29ac67a/a050c77e-7dd5-4cd7-9186-83fa38c0dc77-master.m3u8https://video.igem.org/videos/embed/iyrPFsGkNoAfFANcH4ARho900092023-11-09T21:51:41.529ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/xzXn2rpMCLMwXvytFJHqxmhttps://video.igem.org/lazy-static/thumbnails/aa0a49ef-a459-494c-87da-d33393b0182a.jpgOUC-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/ouc-china)https://static.igem.org/peertube/streaming-playlists/hls/ffc8f612-897d-4db3-b900-9f7a7d40eea2/106d1ec0-81de-4fa4-9e65-0d96fb797e6f-master.m3u8https://video.igem.org/videos/embed/xzXn2rpMCLMwXvytFJHqxm18000262023-11-09T22:00:58.813ZYES2023 Judging SessionsNOhttps://video.igem.org/w/m3axnmb5rf2wYGtzt7w2okhttps://video.igem.org/lazy-static/thumbnails/b3484c9b-3ea1-4022-902f-dc8be102a939.jpgShanghai-city: Judging Session (2023)[Wiki](https://2023.igem.wiki/shanghai-city)https://static.igem.org/peertube/streaming-playlists/hls/a24423f6-c90c-4dc9-8af2-60791010bae3/0e77c5e0-f13a-4111-ad05-2291c8d9223a-master.m3u8https://video.igem.org/videos/embed/m3axnmb5rf2wYGtzt7w2ok18000112023-11-09T22:10:49.206ZYES2023 Judging SessionsNOhttps://video.igem.org/w/v74U59AeAGRzfnvPD3MJMahttps://video.igem.org/lazy-static/thumbnails/336be2f1-aa0e-4219-b9dc-62e23672af01.jpgFudan: Plaza Presentation (2023)Fudan: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/ebb1e2c7-636a-46b8-829e-d02cdb0548ab/a3a3230f-349c-4230-9bba-d509f122fa44-master.m3u8https://video.igem.org/videos/embed/v74U59AeAGRzfnvPD3MJMa9000202023-11-09T22:19:50.992ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/jDr7B9nMxnmHg6b7KCPRAMhttps://video.igem.org/lazy-static/thumbnails/344046e7-f6df-4083-95a9-f2fcd9eb6666.jpgJapan-United: Judging Session (2023)[Wiki](https://2023.igem.wiki/japan-united)https://static.igem.org/peertube/streaming-playlists/hls/96fe7e0b-2922-489e-9bcd-1afa5d4f7ebd/00c80586-dec3-4a17-aa57-05ad35651e1e-master.m3u8https://video.igem.org/videos/embed/jDr7B9nMxnmHg6b7KCPRAM180007562023-11-09T22:28:27.197ZYES2023 Judging SessionsNOhttps://video.igem.org/w/v8EDitgkg699Tcm38mYv6yhttps://video.igem.org/lazy-static/thumbnails/e5226083-a54e-434c-a226-3889f546769c.jpgBioplus-Shanghai: Judging Session (2023)[Wiki](https://2023.igem.wiki/bioplus-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/ebeb0acd-b236-4dfc-8b54-93ee1f8a5b36/7de14c02-36f6-4438-8e11-36822a52b2bf-master.m3u8https://video.igem.org/videos/embed/v8EDitgkg699Tcm38mYv6y1800092023-11-09T22:37:15.526ZYES2023 Judging SessionsNOhttps://video.igem.org/w/eM8cZYdADwyP7w9jTMBGQYhttps://video.igem.org/lazy-static/thumbnails/d6561930-5f67-4cbf-8361-063bbe4217cb.jpgSMBU: Judging Session (2023)[Wiki](https://2023.igem.wiki/smbu)https://static.igem.org/peertube/streaming-playlists/hls/6f93b6b0-96a7-4e0b-86b2-c72d059ac160/44fdb892-438f-40bb-b785-093751c6ddbc-master.m3u8https://video.igem.org/videos/embed/eM8cZYdADwyP7w9jTMBGQY1800042023-11-09T22:47:36.703ZYES2023 Judging SessionsNOhttps://video.igem.org/w/rj46AjgG5TxFT62Us8BLJ1https://video.igem.org/lazy-static/thumbnails/85e8c72c-53a0-4b6a-9f96-c03512a1e204.jpgSUSTech-OCE: Judging Session (2023)[Wiki](https://2023.igem.wiki/sustech-oce)https://static.igem.org/peertube/streaming-playlists/hls/ccf9c339-030b-48f7-a3fe-30cebeac935c/436f2a0f-7eb0-4820-bdd6-5f29108975ff-master.m3u8https://video.igem.org/videos/embed/rj46AjgG5TxFT62Us8BLJ118000132023-11-09T22:56:38.261ZYES2023 Judging SessionsNOhttps://video.igem.org/w/omd8WkAZ34PWaMqdJioa7ghttps://video.igem.org/lazy-static/thumbnails/b0a9b6a2-c692-4b95-98df-5e979123f509.jpgHKPOLYU: Judging Session (2023)[Wiki](https://2023.igem.wiki/hkpolyu)https://static.igem.org/peertube/streaming-playlists/hls/b4fb67cf-cf39-4f77-8d73-150495f63f6f/aa23a6fa-acc5-42d4-8dec-bd550a643e49-master.m3u8https://video.igem.org/videos/embed/omd8WkAZ34PWaMqdJioa7g18000432023-11-09T23:06:02.993ZYES2023 Judging SessionsNOhttps://video.igem.org/w/rA85vKtdPYC3MivRZvQ2k5https://video.igem.org/lazy-static/thumbnails/14e22f48-3ff4-42b2-9766-ad2ff6bb58a8.jpgChalmers-Gothenburg: Judging Session (2023)[Wiki](https://2023.igem.wiki/chalmers-gothenburg)https://static.igem.org/peertube/streaming-playlists/hls/cf381dd5-3476-4bdc-8433-e185233c9226/df07fbe1-3760-4dda-b8a7-8904f2f529aa-master.m3u8https://video.igem.org/videos/embed/rA85vKtdPYC3MivRZvQ2k51800092023-11-09T23:15:44.516ZYES2023 Judging SessionsNOhttps://video.igem.org/w/d6DiCMEk2WTBRyiomQbM4Ahttps://video.igem.org/lazy-static/thumbnails/8ac15124-e98d-4e16-aafd-d60d8df08328.jpgShanghai-SDG: Judging Session (2023)[Wiki](https://2023.igem.wiki/shanghai-sdg)https://static.igem.org/peertube/streaming-playlists/hls/61f75f48-8c47-443a-be7a-a468ecf0f334/0ba9ab18-8f65-42af-b67d-e030acd77d01-master.m3u8https://video.igem.org/videos/embed/d6DiCMEk2WTBRyiomQbM4A1800072023-11-09T23:25:36.706ZYES2023 Judging SessionsNOhttps://video.igem.org/w/jKAbZdQzmfHygzTkn3rMAVhttps://video.igem.org/lazy-static/thumbnails/eb864144-2922-4a5a-a793-39e1c32c3510.jpgThinker-Shanghai: Judging Session (2023)[Wiki](https://2023.igem.wiki/thinker-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/97da8c47-d039-4856-a531-b4fd06d3c2a5/2112bc0e-8bfb-4b17-b330-37701a43a372-master.m3u8https://video.igem.org/videos/embed/jKAbZdQzmfHygzTkn3rMAV18000172023-11-09T23:35:11.410ZYES2023 Judging SessionsNOhttps://video.igem.org/w/5j4Zbwt1cjeSwdGcWHFLBdhttps://video.igem.org/lazy-static/thumbnails/3b6df6e5-e3cc-4803-b45f-2d4c84b438ef.jpgQueens-Canada: Judging Session (2023)[Wiki](https://2023.igem.wiki/queens-canada)https://static.igem.org/peertube/streaming-playlists/hls/22ea661d-ad94-4876-a0eb-8c51b4251e52/fde84bd1-2bbf-4f5f-837a-383ac25039ef-master.m3u8https://video.igem.org/videos/embed/5j4Zbwt1cjeSwdGcWHFLBd1800092023-11-09T23:44:23.910ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6roy49vyfHupJLbxZ8xss4https://video.igem.org/lazy-static/thumbnails/115964e4-9f6e-44a0-93a4-bdbae6e40ef2.jpgStockholm: Plaza Presentation (2023)Stockholm: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/2c092fa5-9303-4d9b-8dbb-e1be893d3937/9350e3e3-5dfe-40c9-a9bf-2f08d3e49c63-master.m3u8https://video.igem.org/videos/embed/6roy49vyfHupJLbxZ8xss4900052023-11-10T00:00:43.867ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/a7kKjmMJB8BnA4qDqHewRVhttps://video.igem.org/lazy-static/thumbnails/6c7a5bed-c217-4b3c-89d2-e2a4f59c6764.jpgBJEA-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/bjea-china)https://static.igem.org/peertube/streaming-playlists/hls/49c4e146-649e-4ee6-85f0-8770ef78de5f/e4d7cea5-ae77-4a79-9dc1-98752965be45-master.m3u8https://video.igem.org/videos/embed/a7kKjmMJB8BnA4qDqHewRV18000182023-11-10T00:10:28.410ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3AA1GicpfrTXLkVCFvryquhttps://video.igem.org/lazy-static/thumbnails/ce4edff2-e6f7-4f69-b345-024d222aa12b.jpgSDU-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/sdu-china)https://static.igem.org/peertube/streaming-playlists/hls/150686b0-3be8-40a6-920e-a6e30a693aa4/6bc4743b-2dc2-457b-bf31-0393e12d71e3-master.m3u8https://video.igem.org/videos/embed/3AA1GicpfrTXLkVCFvryqu18000232023-11-10T00:20:11.852ZYES2023 Judging SessionsNOhttps://video.igem.org/w/cgkrf74WRMXCPgJVngRGdGhttps://video.igem.org/lazy-static/thumbnails/d4ab72d3-4929-4c0d-8f33-33442400337b.jpgHongKong-PuiChing: Judging Session (2023)[Wiki](https://2023.igem.wiki/hongkong-puiching)https://static.igem.org/peertube/streaming-playlists/hls/5b38a8c0-f48c-4448-8334-4b0fcdbe4d78/0f0bde74-e682-4ded-96fe-f7f9e8b18262-master.m3u8https://video.igem.org/videos/embed/cgkrf74WRMXCPgJVngRGdG18000262023-11-10T00:55:46.161ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8BwRW39rKucJDtZRZf97Z6https://video.igem.org/lazy-static/thumbnails/5f876b3c-2032-4ac1-89fa-5c31581f109b.jpgSquirrel-Guangzhou: Judging Session (2023)[Wiki](https://2023.igem.wiki/squirrel-guangzhou)https://static.igem.org/peertube/streaming-playlists/hls/3da60571-ee11-462b-8a90-6758d5adfa47/5f2d1244-39c6-4e3a-a5a9-6151d49c23f0-master.m3u8https://video.igem.org/videos/embed/8BwRW39rKucJDtZRZf97Z618000172023-11-10T00:36:30.470ZYES2023 Judging SessionsNOhttps://video.igem.org/w/nE6rgFvvCMLqKGo1i2bavJhttps://video.igem.org/lazy-static/thumbnails/6c0b96fa-c280-4870-8734-61e969f8c9e9.jpgLZU-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/lzu-china)https://static.igem.org/peertube/streaming-playlists/hls/af618665-8293-43e0-8bc3-686897831c40/285c5755-fb59-4e4e-9b97-231e803d3b4c-master.m3u8https://video.igem.org/videos/embed/nE6rgFvvCMLqKGo1i2bavJ18000492023-11-10T00:46:03.129ZYES2023 Judging SessionsNOhttps://video.igem.org/w/vfyFDLn19KFKZ4QVhb3v3rhttps://video.igem.org/lazy-static/thumbnails/954fd3e8-bcb6-42ac-acca-4882049b8bf0.jpgGU-Frankfurt: Judging Session (2023)[Wiki](https://2023.igem.wiki/gu-frankfurt)https://static.igem.org/peertube/streaming-playlists/hls/ece19370-0c71-4884-9cab-6132b24552d1/56829c7f-9e9f-46cd-8124-600563f26c90-master.m3u8https://video.igem.org/videos/embed/vfyFDLn19KFKZ4QVhb3v3r18000342023-11-10T01:15:27.301ZYES2023 Judging SessionsNOhttps://video.igem.org/w/niKZKxWDeDhfPALricDpyehttps://video.igem.org/lazy-static/thumbnails/5bbcf3ed-a602-4300-a715-f931d8112063.jpgNanjing-NFLS: Judging Session (2023)[Wiki](https://2023.igem.wiki/nanjing-nfls)https://static.igem.org/peertube/streaming-playlists/hls/ac8aab55-070b-4dbd-a2e8-42c9a25f56e1/e99bfaae-cd1d-4919-8eb1-23255972d6a7-master.m3u8https://video.igem.org/videos/embed/niKZKxWDeDhfPALricDpye18000142023-11-10T01:05:40.915ZYES2023 Judging SessionsNOhttps://video.igem.org/w/iu4paLYkJLxye1Dz7oNU8Phttps://video.igem.org/lazy-static/thumbnails/2e6a5053-4ab9-4bdf-97af-96c21613f49e.jpgASU: Judging Session (2023)[Wiki](https://2023.igem.wiki/asu)https://static.igem.org/peertube/streaming-playlists/hls/8d96471b-ef31-4467-959d-541069f59e25/41785e84-2438-4188-a0a4-44ca0e87b450-master.m3u8https://video.igem.org/videos/embed/iu4paLYkJLxye1Dz7oNU8P18000172023-11-10T01:25:12.276ZYES2023 Judging SessionsNOhttps://video.igem.org/w/hwbnbGoZzQFNCU6M6VniKmhttps://video.igem.org/lazy-static/thumbnails/bea275de-258f-43af-936e-ba0953ec1368.jpgUNC-ChapelHill: Judging Session (2023)[Wiki](https://2023.igem.wiki/unc-chapelhill)https://static.igem.org/peertube/streaming-playlists/hls/85c8eb62-7820-43da-8f68-0728041ba8ae/ec28d3a7-739e-49fd-a370-eb83e3aef23e-master.m3u8https://video.igem.org/videos/embed/hwbnbGoZzQFNCU6M6VniKm1800082023-11-10T01:34:29.735ZYES2023 Judging SessionsNOhttps://video.igem.org/w/dp1GqEq8mhmGtyTZASybbWhttps://video.igem.org/lazy-static/thumbnails/df4acfd5-8c9c-49cb-b31d-41fd521e4801.jpgIOANNINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/ioannina)https://static.igem.org/peertube/streaming-playlists/hls/6464333d-e220-4432-baff-081a02f83102/45527cc7-e213-4ae1-98a9-ad187b6d0651-master.m3u8https://video.igem.org/videos/embed/dp1GqEq8mhmGtyTZASybbW18000382023-11-10T01:43:32.598ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3zfYmxov7vvzvKmRaJ2Jf8https://video.igem.org/lazy-static/thumbnails/1e1dcffb-d3b9-47bb-b857-971619b3eed4.jpgTSBC-SZ: Judging Session (2023)[Wiki](https://2023.igem.wiki/tsbc-sz)https://static.igem.org/peertube/streaming-playlists/hls/14d70c5e-bf50-4cad-94af-6a88d4b969c3/11ba78ba-b4d4-4ad6-89f4-c1bf0bcbf8f2-master.m3u8https://video.igem.org/videos/embed/3zfYmxov7vvzvKmRaJ2Jf81800052023-11-10T01:53:36.848ZYES2023 Judging SessionsNOhttps://video.igem.org/w/gPTbKNFYv4sqpECjuQo9nohttps://video.igem.org/lazy-static/thumbnails/48f61a6b-8f02-4d33-a370-f406e99afe5e.jpgBASIS-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/basis-china)https://static.igem.org/peertube/streaming-playlists/hls/802894cb-d512-4dce-99c3-aa42f57b0468/03ba2908-5c0c-4177-b646-66b94fadc165-master.m3u8https://video.igem.org/videos/embed/gPTbKNFYv4sqpECjuQo9no180003162023-11-10T02:02:33.989ZYES2023 Judging SessionsNOhttps://video.igem.org/w/soCGZA7YhTEVN2a325USDchttps://video.igem.org/lazy-static/thumbnails/718c4726-03a2-4095-a0b5-efeb3620e27c.jpgJiangnan-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/jiangnan-china)https://static.igem.org/peertube/streaming-playlists/hls/d5b696e6-650b-4113-b607-ff73c2d63f75/19f17262-f6e0-4dea-b5d3-46539d4b6914-master.m3u8https://video.igem.org/videos/embed/soCGZA7YhTEVN2a325USDc18000192023-11-10T02:11:30.901ZYES2023 Judging SessionsNOhttps://video.igem.org/w/5bLdXgo5Rh89WiwncFTZNehttps://video.igem.org/lazy-static/thumbnails/54c8b49b-712e-4a7b-b8a9-7b0d024b17ab.jpgiGEM Trivia With Genscript - 2Do you love synthetic biology AND trivia? Join GenScript’s iGEM Trivia! Come bond with fellow iGEM teams as we play an iGEM and Synthetic Biology- themed TRIVIA game! Participants can join simply using their cell phones or a device connected to the internet. Top winners will receive a prize!https://static.igem.org/peertube/streaming-playlists/hls/21e53ef5-6b60-4e9e-9a40-71f97f1cdc05/476ed6d2-4126-4eb0-a820-39cd6d781b65-master.m3u8https://video.igem.org/videos/embed/5bLdXgo5Rh89WiwncFTZNe1800032023-11-03T17:25:36.782ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/5eRHLxiCnNi3gCjdNgPg7Ehttps://video.igem.org/lazy-static/thumbnails/fa4f8d8b-2d6b-4922-bdd3-ac39e5db32dc.jpgJiangsu-United: Judging Session (2023)[Wiki](https://2023.igem.wiki/jiangsu-united)https://static.igem.org/peertube/streaming-playlists/hls/2253dd61-c13c-4f3d-bab7-ae3054cc7ca6/d444941c-fe51-40fe-a7ea-04262c595017-master.m3u8https://video.igem.org/videos/embed/5eRHLxiCnNi3gCjdNgPg7E18000212023-11-10T02:31:30.988ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4oeGsQQj9qKmmxMCZFReVchttps://video.igem.org/lazy-static/thumbnails/528bc1c4-ec55-4d51-91f5-bb8881535577.jpgHSASNU: Judging Session (2023)[Wiki](https://2023.igem.wiki/hsasnu)https://static.igem.org/peertube/streaming-playlists/hls/1b66386b-4956-4b77-8500-791099a5cf19/e43f6935-2983-4ae1-8d59-c19b8f374787-master.m3u8https://video.igem.org/videos/embed/4oeGsQQj9qKmmxMCZFReVc18000112023-11-10T02:21:27.259ZYES2023 Judging SessionsNOhttps://video.igem.org/w/pKFkzi4KCmUvddsmzUJGqyhttps://video.igem.org/lazy-static/thumbnails/769a45bf-b2c9-45a3-94a6-c92531973a14.jpgGreatBay-SCIE: Judging Session (2023)[Wiki](https://2023.igem.wiki/greatbay-scie)https://static.igem.org/peertube/streaming-playlists/hls/c05b69f3-ba8f-4cac-8d44-e1535d6274a0/b0ba8ba5-02c5-47dc-9475-5ad637bc5b6c-master.m3u8https://video.igem.org/videos/embed/pKFkzi4KCmUvddsmzUJGqy18000822023-11-10T02:40:58.535ZYES2023 Judging SessionsNOhttps://video.igem.org/w/duk8guWGqvEYGt1QPGznV9https://video.igem.org/lazy-static/thumbnails/018bbde8-3333-45d7-bbb2-28c6ad8b5f83.jpgBITSPilani-Goa-India: Judging Session (2023)[Wiki](https://2023.igem.wiki/bitspilani-goa-india)https://static.igem.org/peertube/streaming-playlists/hls/6522469e-f383-4c3d-8676-b0f037dd1906/cb089391-803b-4a33-960a-d3d6f7d82fed-master.m3u8https://video.igem.org/videos/embed/duk8guWGqvEYGt1QPGznV918000182023-11-10T02:50:49.721ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8KnPgJZCUaVeQSRCdnbfMrhttps://video.igem.org/lazy-static/thumbnails/7b44dcf1-070b-4514-b765-5e9086fff0e0.jpgShanghai-BioX: Judging Session (2023)[Wiki](https://2023.igem.wiki/shanghai-biox)https://static.igem.org/peertube/streaming-playlists/hls/3ebe658f-31da-4fd3-b90f-8b6c87b9bf23/48830bb7-49a5-4851-bb49-055918b1480b-master.m3u8https://video.igem.org/videos/embed/8KnPgJZCUaVeQSRCdnbfMr18000152023-11-10T03:00:44.655ZYES2023 Judging SessionsNOhttps://video.igem.org/w/hB4HKMaGHhdcm2xP2odR2uhttps://video.igem.org/lazy-static/thumbnails/39a9b4f2-4c67-48c8-beae-3ce8923cda79.jpgGuelph: Judging Session (2023)[Wiki](https://2023.igem.wiki/guelph)https://static.igem.org/peertube/streaming-playlists/hls/86778b01-22e0-4383-ad72-ffbfe773335a/21aea957-30b5-4753-b56f-d8ea10c869ad-master.m3u8https://video.igem.org/videos/embed/hB4HKMaGHhdcm2xP2odR2u1800092023-11-10T03:10:29.102ZYES2023 Judging SessionsNOhttps://video.igem.org/w/dHpdeYdcpTpKYXWWWMDQ68https://video.igem.org/lazy-static/thumbnails/69b50ae1-da57-451d-b74b-eb24dfecfb5a.jpgIISER-TVM: Judging Session (2023)[Wiki](https://2023.igem.wiki/iiser-tvm)https://static.igem.org/peertube/streaming-playlists/hls/66f5767a-86ce-431b-945a-91ea37df1ec1/c552dd5b-391b-46aa-82e5-5625dcb0d1e4-master.m3u8https://video.igem.org/videos/embed/dHpdeYdcpTpKYXWWWMDQ68180001082023-11-10T03:20:14.550ZYES2023 Judging SessionsNOhttps://video.igem.org/w/1KbMn1eo7yrMZzGUZV8bi4https://video.igem.org/lazy-static/thumbnails/b99acfb1-abd1-424d-9636-53c1e84e8c28.jpgWrightState-OH: Judging Session (2023)[Wiki](https://2023.igem.wiki/wrightstate-oh)https://static.igem.org/peertube/streaming-playlists/hls/0607a077-324e-46c9-acf6-367043def34d/f5aa1a75-8669-43ae-9345-2124471e9754-master.m3u8https://video.igem.org/videos/embed/1KbMn1eo7yrMZzGUZV8bi41800042023-11-10T03:29:15.474ZYES2023 Judging SessionsNOhttps://video.igem.org/w/sGoF9CueJciqYNUfBznsJshttps://video.igem.org/lazy-static/thumbnails/298329a2-891d-4cbb-8f52-79487003b931.jpgCSMU-Taiwan: Judging Session (2023)[Wiki](https://2023.igem.wiki/csmu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/d8315475-1c76-4847-a50c-f9f2d1d117fe/e4af4bf1-f0d2-4b78-8b10-8b66751e5353-master.m3u8https://video.igem.org/videos/embed/sGoF9CueJciqYNUfBznsJs1800082023-11-10T03:38:05.578ZYES2023 Judging SessionsNOhttps://video.igem.org/w/cjSFEVvxKPMTx9pymiwwcxhttps://video.igem.org/lazy-static/thumbnails/327ec17c-0f16-4005-9dd7-388b15a3d6df.jpgTecMonterreyGDL: Plaza Presentation (2023)TecMonterreyGDL: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/5bb725f2-b8dd-491c-9494-4050db5f3795/62f02a9d-00b1-4c00-ac33-d0434e0c2a77-master.m3u8https://video.igem.org/videos/embed/cjSFEVvxKPMTx9pymiwwcx9000462023-11-10T03:46:35.394ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/4nTENBuxyueMj96bmZYSYKhttps://video.igem.org/lazy-static/thumbnails/68da21c8-2442-4ead-b57a-739b6a760cf9.jpgDTU-Denmark: Plaza Presentation (2023)DTU-Denmark: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/1b59e098-0dd8-44a0-b58f-1136a93bdab3/8e6c2d47-a99b-4e11-a2ce-cd921ba8a76b-master.m3u8https://video.igem.org/videos/embed/4nTENBuxyueMj96bmZYSYK9000382023-11-10T03:55:44.972ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/nTDRWVoamVRHmixqrLEkSfhttps://video.igem.org/lazy-static/thumbnails/9a65bbe4-9e28-4551-9181-30883e756a97.jpgEastCoastBioCrew: Judging Session (2023)[Wiki](https://2023.igem.wiki/eastcoastbiocrew)https://static.igem.org/peertube/streaming-playlists/hls/b1462d48-f78e-4e38-b6dc-70b3238d92de/264be0d0-a0a4-4e8f-9862-99c9e8f6fc23-master.m3u8https://video.igem.org/videos/embed/nTDRWVoamVRHmixqrLEkSf18000192023-11-10T04:15:10.099ZYES2023 Judging SessionsNOhttps://video.igem.org/w/32huQ1nFyf34ec3BkVL4Pbhttps://video.igem.org/lazy-static/thumbnails/8352c242-4197-4852-885b-de33f8cea28e.jpgHarvard: Judging Session (2023)[Wiki](https://2023.igem.wiki/harvard)https://static.igem.org/peertube/streaming-playlists/hls/10603010-16a5-4857-852e-34bb25f808ec/48e1235a-7112-4163-83eb-7f8c0875baff-master.m3u8https://video.igem.org/videos/embed/32huQ1nFyf34ec3BkVL4Pb18000312023-11-10T04:05:26.602ZYES2023 Judging SessionsNOhttps://video.igem.org/w/tMnp6dKqj1yvoRs7BREDPRhttps://video.igem.org/lazy-static/thumbnails/63624211-266e-4f92-ad1d-e1b5e47fdafa.jpgUVU-Utah: Judging Session (2023)[Wiki](https://2023.igem.wiki/uvu-utah)https://static.igem.org/peertube/streaming-playlists/hls/e0fc6688-717a-42ec-a300-464bb4015f6b/07c3cb40-56ff-4568-9408-1fda7a7eaa52-master.m3u8https://video.igem.org/videos/embed/tMnp6dKqj1yvoRs7BREDPR1800052023-11-10T04:24:43.751ZYES2023 Judging SessionsNOhttps://video.igem.org/w/pRQq3Ke7T22CFWjDFr7KVDhttps://video.igem.org/lazy-static/thumbnails/31006706-2ffa-4fa2-91cd-96cb4be2c29d.jpgSynBio Communities Around the World (Part II)When building a technology ecosystem it is important to engage and include the community in the conversation; and nurture a collective approach to overcome barriers and identify opportunities for growth. Learn how Synthetic Biology Associations around the world are building local synbio communities. Session featuring: CCiC, Great Lakes SynBio, EUSynBioS, SynBioNL (Netherlands) and SynBioBR (Brazil).https://static.igem.org/peertube/streaming-playlists/hls/c1377870-e728-4893-a1fc-31aa64436853/89432ffb-fef1-482d-ab16-e65f013b5c05-master.m3u8https://video.igem.org/videos/embed/pRQq3Ke7T22CFWjDFr7KVD18000142023-11-03T18:07:30.537ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/iVREAbmjLGY3H8TgbWTRJ9https://video.igem.org/lazy-static/thumbnails/6fef45f9-9084-4313-8296-fa452b612c4c.jpgNavarraBG: Judging Session (2023)[Wiki](https://2023.igem.wiki/navarrabg)https://static.igem.org/peertube/streaming-playlists/hls/91306266-a035-4696-aaa5-7e9db6a9ab48/cdaf8147-0f94-436c-8eb0-bcd26985ac8a-master.m3u8https://video.igem.org/videos/embed/iVREAbmjLGY3H8TgbWTRJ918000112023-11-10T04:34:21.716ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6iEkxdZYLV5MQJ5CVZbXjbhttps://video.igem.org/lazy-static/thumbnails/bc0a4178-1866-4de2-87ec-bca6730f2f09.jpgUAlberta: Judging Session (2023)[Wiki](https://2023.igem.wiki/ualberta)https://static.igem.org/peertube/streaming-playlists/hls/2af4f69c-6c4b-488f-ac11-faa7b97f581a/43940cf3-04be-496f-8fd0-bc52d8a0352b-master.m3u8https://video.igem.org/videos/embed/6iEkxdZYLV5MQJ5CVZbXjb18000112023-11-10T04:43:01.581ZYES2023 Judging SessionsNOhttps://video.igem.org/w/2pqEb3GX8PpqaoExmmfjXHhttps://video.igem.org/lazy-static/thumbnails/c74a1ca3-63aa-4e71-af38-f55cc9e69a03.jpgthessaloniki: Judging Session (2023)[Wiki](https://2023.igem.wiki/thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/0b5e7106-2ada-4826-a90a-4dc8d91375d7/9d198a66-8b3f-4731-a242-8d543d62ad33-master.m3u8https://video.igem.org/videos/embed/2pqEb3GX8PpqaoExmmfjXH18000252023-11-10T05:01:15.819ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8dA9mWuhLD9pKQ2xxT3QFohttps://video.igem.org/lazy-static/thumbnails/e1036c61-2cef-4a75-ada4-af9d4d50fedf.jpgAalto-Helsinki: Judging Session (2023)[Wiki](https://2023.igem.wiki/aalto-helsinki)https://static.igem.org/peertube/streaming-playlists/hls/3a71f01d-0fdf-4dc2-ac35-bc3e2d1232cc/4f4a6fda-db93-4b7f-8042-a750a221c340-master.m3u8https://video.igem.org/videos/embed/8dA9mWuhLD9pKQ2xxT3QFo18000372023-11-10T04:52:25.183ZYES2023 Judging SessionsNOhttps://video.igem.org/w/oha9EwY818QtgKSjZZRzQDhttps://video.igem.org/lazy-static/thumbnails/00f99daa-9bd9-4c9e-8d96-9b39d043cf11.jpgQdai: Plaza Presentation (2023)Qdai: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/b46a96df-956b-496b-bb54-8753eeca4201/b263c5f6-ccb0-4068-bf27-8f2b8eca4b6a-master.m3u8https://video.igem.org/videos/embed/oha9EwY818QtgKSjZZRzQD9000182023-11-10T05:10:34.241ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/qAVYxYjjrGwiZbStxCkifehttps://video.igem.org/lazy-static/thumbnails/ec902239-ca15-43c8-b73b-fc712a768dfb.jpgMarburg: Judging Session (2023)[Wiki](https://2023.igem.wiki/marburg)https://static.igem.org/peertube/streaming-playlists/hls/c73be11a-5a23-4863-a9ab-d6521fbd45f5/5163062d-f659-495e-b8ed-cba48d685b99-master.m3u8https://video.igem.org/videos/embed/qAVYxYjjrGwiZbStxCkife18000492023-11-10T05:20:23.177ZYES2023 Judging SessionsNOhttps://video.igem.org/w/pz2aqjZrTvGRaQJcWsQa8Qhttps://video.igem.org/lazy-static/thumbnails/ed94a71e-ae57-4c6a-8c63-5fc716b91e5c.jpgStony-Brook: Plaza Presentation (2023)Stony-Brook: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/bede732f-b57c-4815-b90b-32c5d8856eaa/120218f7-0772-41e2-8b3b-44d63fabcfb0-master.m3u8https://video.igem.org/videos/embed/pz2aqjZrTvGRaQJcWsQa8Q9000152023-11-10T05:28:14.939ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/k6x91M6egeTNgZocZ2Nxsphttps://video.igem.org/lazy-static/thumbnails/16400cc4-f150-44fd-99ad-ff9e8bc3d1af.jpgManual-KY: Judging Session (2023)[Wiki](https://2023.igem.wiki/manual-ky)https://static.igem.org/peertube/streaming-playlists/hls/9aa38aff-b0c3-4d13-89ec-27fed228d8f7/e871b0f5-ad1c-45df-a7d0-a880059c5f4b-master.m3u8https://video.igem.org/videos/embed/k6x91M6egeTNgZocZ2Nxsp18000122023-11-10T05:36:49.058ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uKkNN13mQViyHxCBThiaR4https://video.igem.org/lazy-static/thumbnails/58deddc0-f7cd-4f22-b30d-787a070b573f.jpgWLC-Milwaukee: Judging Session (2023)[Wiki](https://2023.igem.wiki/wlc-milwaukee)https://static.igem.org/peertube/streaming-playlists/hls/e8cd1229-cb8c-4e73-b3c7-7b46984e53a9/0913446f-eb12-42a0-8f8f-466d9b9bb749-master.m3u8https://video.igem.org/videos/embed/uKkNN13mQViyHxCBThiaR41800072023-11-10T05:46:14.545ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8axfUHJe6HPoefu1DSwpp7https://video.igem.org/lazy-static/thumbnails/f0d0da96-bf94-43a6-8402-8d5a05946224.jpgNYCEmpireState: Judging Session (2023)[Wiki](https://2023.igem.wiki/nycempirestate)https://static.igem.org/peertube/streaming-playlists/hls/3a04ed69-8fef-46b8-a7b2-e5ab27461768/13216fb9-8ecc-4ef1-a603-56bdcfe0e7d1-master.m3u8https://video.igem.org/videos/embed/8axfUHJe6HPoefu1DSwpp718000162023-11-10T05:55:44.869ZYES2023 Judging SessionsNOhttps://video.igem.org/w/w9qjAyaaESikn4taPDSrKvhttps://video.igem.org/lazy-static/thumbnails/aeee6580-4437-40ee-a667-3258302f11d0.jpgUMaryland: Judging Session (2023)[Wiki](https://2023.igem.wiki/umaryland)https://static.igem.org/peertube/streaming-playlists/hls/f41f191b-42fd-4bb0-8d14-8ae73a01b69f/64b36a25-3715-4ca0-a987-89266bb14917-master.m3u8https://video.igem.org/videos/embed/w9qjAyaaESikn4taPDSrKv1800032023-11-10T06:05:35.402ZYES2023 Judging SessionsNOhttps://video.igem.org/w/w1ow148ts2C44EXX1nsSrmhttps://video.igem.org/lazy-static/thumbnails/81e2a59e-fd77-41ab-802f-699e5d97747b.jpgUniMuenster: Judging Session (2023)[Wiki](https://2023.igem.wiki/unimuenster)https://static.igem.org/peertube/streaming-playlists/hls/f300095b-8304-452c-9767-fa725da17a66/089c9d42-20cc-45a2-8f9e-1d13a5b9ac10-master.m3u8https://video.igem.org/videos/embed/w1ow148ts2C44EXX1nsSrm18000172023-11-10T06:15:16.472ZYES2023 Judging SessionsNOhttps://video.igem.org/w/5EJemoPRrkCd9Jb2Bb77Ezhttps://video.igem.org/lazy-static/thumbnails/11d50f70-88c2-41ce-98f0-2a2d4bfd8d2d.jpgCalgary: Judging Session (2023)[Wiki](https://2023.igem.wiki/calgary)https://static.igem.org/peertube/streaming-playlists/hls/25ccd7db-01c4-45c9-b54f-55c8499e3545/c7bf4476-14ae-46d4-a012-d4b945afd3f8-master.m3u8https://video.igem.org/videos/embed/5EJemoPRrkCd9Jb2Bb77Ez18000242023-11-10T06:24:47.313ZYES2023 Judging SessionsNOhttps://video.igem.org/w/vnd9FESQar4dzXYcXZMnYLhttps://video.igem.org/lazy-static/thumbnails/65a8a2e0-d5eb-4ee8-9f47-ac8030d25d3b.jpgUSC: Judging Session (2023)[Wiki](https://2023.igem.wiki/usc)https://static.igem.org/peertube/streaming-playlists/hls/edcf20ba-500b-495e-a093-5f18ed30c188/7e4d0d31-0d61-4461-8759-45b330d192c4-master.m3u8https://video.igem.org/videos/embed/vnd9FESQar4dzXYcXZMnYL1800072023-11-10T06:34:11.589ZYES2023 Judging SessionsNOhttps://video.igem.org/w/93FnujxhirikXQornwS25ahttps://video.igem.org/lazy-static/thumbnails/2198cbe3-657d-4936-b6d1-fa1e53551935.jpgUManitoba: Judging Session (2023)[Wiki](https://2023.igem.wiki/umanitoba)https://static.igem.org/peertube/streaming-playlists/hls/4128dc18-3d2b-4285-95b5-6d1f382be525/36190d93-c22a-435e-9f00-6461d54f0703-master.m3u8https://video.igem.org/videos/embed/93FnujxhirikXQornwS25a18000252023-11-10T06:43:06.942ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4km5YYDr86saQ558Zxmsachttps://video.igem.org/lazy-static/thumbnails/73338917-5d22-4d67-b247-454d34df55e8.jpgTAU-Israel: Judging Session (2023)[Wiki](https://2023.igem.wiki/tau-israel)https://static.igem.org/peertube/streaming-playlists/hls/1afeed0d-8114-446d-b835-9433ad2e262d/8fd96711-962e-4a47-b268-e88862156983-master.m3u8https://video.igem.org/videos/embed/4km5YYDr86saQ558Zxmsac18000182023-11-10T06:52:05.390ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7JAyrWvyHeTzkZTzjMuei7https://video.igem.org/lazy-static/thumbnails/e6e1932f-2a41-4709-9d43-a116d0efe055.jpgDNHS-SanDiego-CA: Judging Session (2023)[Wiki](https://2023.igem.wiki/dnhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/36895e49-7862-43ab-9d14-64a4ae8814e4/57088e75-ec6a-4aa7-9cc8-c9066f87df39-master.m3u8https://video.igem.org/videos/embed/7JAyrWvyHeTzkZTzjMuei718000252023-11-10T07:01:43.388ZYES2023 Judging SessionsNOhttps://video.igem.org/w/1R5tiicFnsm4ZQUQjnDdWKhttps://video.igem.org/lazy-static/thumbnails/01e9f479-60c4-477f-94a1-90d2eb4014bd.jpgUBC-Okanagan: Judging Session (2023)[Wiki](https://2023.igem.wiki/ubc-okanagan)https://static.igem.org/peertube/streaming-playlists/hls/06da332a-c643-48f7-90d8-f09f2e27fd6f/46e2ef37-f3bb-4583-816c-d9c16c45f57c-master.m3u8https://video.igem.org/videos/embed/1R5tiicFnsm4ZQUQjnDdWK18000272023-11-10T07:10:59.667ZYES2023 Judging SessionsNOhttps://video.igem.org/w/nRURveoix3c489jGNFPhUEhttps://video.igem.org/lazy-static/thumbnails/03dea5ef-dbdb-44ef-a29a-5ae0d38a1c8d.jpgMcMaster-Canada: Judging Session (2023)[Wiki](https://2023.igem.wiki/mcmaster-canada)https://static.igem.org/peertube/streaming-playlists/hls/b107edc1-0af0-467c-8a61-894a286384b6/0690f9c3-25c2-450e-8814-bd82635ee156-master.m3u8https://video.igem.org/videos/embed/nRURveoix3c489jGNFPhUE18000322023-11-10T07:20:41.104ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6TZHB1ahrbtRFxwt4Fc3cBhttps://video.igem.org/lazy-static/thumbnails/83595f53-e005-4648-b7ca-1d22f1fd73ba.jpgTU-Eindhoven: Judging Session (2023)[Wiki](https://2023.igem.wiki/tu-eindhoven)https://static.igem.org/peertube/streaming-playlists/hls/2fc031f3-7150-4a63-abdd-1641962e4fb1/f7753163-7879-4e5c-8eac-0c9b617df4b2-master.m3u8https://video.igem.org/videos/embed/6TZHB1ahrbtRFxwt4Fc3cB18000572023-11-10T07:30:31.629ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7bVATTa591BG4tD77Rbt7hhttps://video.igem.org/lazy-static/thumbnails/2ccdb4e8-7869-4f32-938c-596bc44c42e6.jpgEstonia-TUIT: Judging Session (2023)[Wiki](https://2023.igem.wiki/estonia-tuit)https://static.igem.org/peertube/streaming-playlists/hls/321d4d86-c860-4cbb-a2e7-9e1b0b2b1698/64f7b43a-c7f0-492f-8ae9-d357df24e216-master.m3u8https://video.igem.org/videos/embed/7bVATTa591BG4tD77Rbt7h180002632023-11-10T07:40:00.150ZYES2023 Judging SessionsNOhttps://video.igem.org/w/55gNsauEApPDcfxFqKqgMBhttps://video.igem.org/lazy-static/thumbnails/0c51ec8b-15e8-45e5-b475-62045d27e85e.jpgUNILA-LatAm: Judging Session (2023)[Wiki](https://2023.igem.wiki/unila-latam)https://static.igem.org/peertube/streaming-playlists/hls/20fd4471-a153-4114-94eb-b4df4ec21d21/7857ba77-866e-4bc0-9c8c-d608568b789a-master.m3u8https://video.igem.org/videos/embed/55gNsauEApPDcfxFqKqgMB18000402023-11-10T07:49:02.462ZYES2023 Judging SessionsNOhttps://video.igem.org/w/1zyqePUzj1RD7ArF2jGLbZhttps://video.igem.org/lazy-static/thumbnails/f6e2c9b3-9487-43d9-93e1-e79247fd5c14.jpgNDSU: Judging Session (2023)[Wiki](https://2023.igem.wiki/ndsu)https://static.igem.org/peertube/streaming-playlists/hls/04af85cc-8fb8-4a1f-ab74-8be937d14fed/7898ccd4-69d0-4b7f-9204-32b7bfaea40d-master.m3u8https://video.igem.org/videos/embed/1zyqePUzj1RD7ArF2jGLbZ18000102023-11-10T07:58:10.579ZYES2023 Judging SessionsNOhttps://video.igem.org/w/cDjCQvyrkpEHrSJDzkP8b9https://video.igem.org/lazy-static/thumbnails/3325a271-7ba6-4955-b1ee-3249061449f2.jpgDay 3 - Startup Stage Kick-offAs we approach the final day of the iGEM Grand Jamboree, join us for the grand unveiling of Day 3's activities at the Startup Stage - today we celebrate the famed Startup Showcase! Don't miss out! Witness the culmination of creativity and innovation at its finest.https://static.igem.org/peertube/streaming-playlists/hls/5e4a876f-73e6-4e7d-bbdc-eca9f56dadb0/ab943b28-dc38-4897-916c-bb44676def00-master.m3u8https://video.igem.org/videos/embed/cDjCQvyrkpEHrSJDzkP8b9900042023-11-04T09:25:11.663ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/2RFn241qCzg57FCitEE47jhttps://video.igem.org/lazy-static/thumbnails/1e31a6ac-adcb-46ec-8c35-07e9ea943eb1.jpgTSB-Center: Plaza Presentation (2023)TSB-Center: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/0f08d760-b820-403f-92e2-399cb068024a/e76daefb-026f-471a-921b-718d682a5459-master.m3u8https://video.igem.org/videos/embed/2RFn241qCzg57FCitEE47j900032023-11-10T11:30:29.861ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/sPtoLhWRoi3rwzoRUZDaZ5https://video.igem.org/lazy-static/thumbnails/bde4263b-b3b6-450f-a8a3-b35a6fc64c07.jpgNanjing-SDG: Judging Session (2023)[Wiki](https://2023.igem.wiki/nanjing-sdg)https://static.igem.org/peertube/streaming-playlists/hls/d92e718d-5e9c-4904-8603-452e1777824a/8e714399-8195-43d8-ba79-1ffc5dd327d0-master.m3u8https://video.igem.org/videos/embed/sPtoLhWRoi3rwzoRUZDaZ518000442023-11-10T11:55:50.551ZYES2023 Judging SessionsNOhttps://video.igem.org/w/bsqvBFbidcheg5Gyg7gvTihttps://video.igem.org/lazy-static/thumbnails/3bb86e70-f6eb-43b7-b639-ce9856006bba.jpgHongKong-CUHK: Judging Session (2023)[Wiki](https://2023.igem.wiki/hongkong-cuhk)https://static.igem.org/peertube/streaming-playlists/hls/54abd46e-e26d-41ba-85b2-6914ba6ebdcb/34865b9f-ce9e-4c1c-9b47-0394c6c5f5cc-master.m3u8https://video.igem.org/videos/embed/bsqvBFbidcheg5Gyg7gvTi1800082023-11-10T12:15:30.944ZYES2023 Judging SessionsNOhttps://video.igem.org/w/udwhqe5cV31KfYgZMEguB8https://video.igem.org/lazy-static/thumbnails/d7e5d101-affe-453e-8a5b-c572cc0300cb.jpgIFB-Gdansk: Judging Session (2023)[Wiki](https://2023.igem.wiki/ifb-gdansk)https://static.igem.org/peertube/streaming-playlists/hls/e47f7866-eed0-4a14-92d2-4fd384332f7d/0d7460f3-4c81-4d58-868f-4f9abd051733-master.m3u8https://video.igem.org/videos/embed/udwhqe5cV31KfYgZMEguB818000252023-11-10T12:05:39.040ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uHP6b91r1GM9P1UhhRcHduhttps://video.igem.org/lazy-static/thumbnails/813d8ecf-7a41-4475-92ea-6aebd21ff9d6.jpgShanghai-MedX: Judging Session (2023)[Wiki](https://2023.igem.wiki/shanghai-medx)https://static.igem.org/peertube/streaming-playlists/hls/e8966595-88e6-4922-9de5-bb8cedd0ab60/aaa19b27-bbca-4cd8-93cb-bf71b7ba3328-master.m3u8https://video.igem.org/videos/embed/uHP6b91r1GM9P1UhhRcHdu18000112023-11-10T12:44:57.499ZYES2023 Judging SessionsNOhttps://video.igem.org/w/eiKkQ14jvx8SFdqhxCzaZvhttps://video.igem.org/lazy-static/thumbnails/503515d1-0583-47a5-8d63-a40d4cbd21cf.jpgBAID-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/baid-china)https://static.igem.org/peertube/streaming-playlists/hls/6bc12833-96a7-4602-b7cc-5c6665694913/da36e8a3-8b1f-41ca-923f-6663eac37866-master.m3u8https://video.igem.org/videos/embed/eiKkQ14jvx8SFdqhxCzaZv18000392023-11-10T12:25:24.968ZYES2023 Judging SessionsNOhttps://video.igem.org/w/n2kRoV2QDhzXKSr7gMcjgkhttps://video.igem.org/lazy-static/thumbnails/dd1052ee-97d8-4f3e-889b-23da81a2fec6.jpgJLU-NBBMS: Judging Session (2023)[Wiki](https://2023.igem.wiki/jlu-nbbms)https://static.igem.org/peertube/streaming-playlists/hls/aa3fe3bf-4238-4f00-a23e-340cbdcabfe9/9bf6e714-5710-4149-a505-7e0515e10fd2-master.m3u8https://video.igem.org/videos/embed/n2kRoV2QDhzXKSr7gMcjgk18000242023-11-10T12:35:10.057ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6NM8xA2bUMXwdP7SvKM1phhttps://video.igem.org/lazy-static/thumbnails/59da4c2e-3f00-44d8-a6eb-d869ff6ef9c9.jpgTongji-Software: Judging Session (2023)[Wiki](https://2023.igem.wiki/tongji-software)https://static.igem.org/peertube/streaming-playlists/hls/2f05b818-3689-4594-8d20-057361cf019e/30758a64-cc28-4176-800b-2fd587df47bf-master.m3u8https://video.igem.org/videos/embed/6NM8xA2bUMXwdP7SvKM1ph18000152023-11-10T13:01:14.249ZYES2023 Judging SessionsNOhttps://video.igem.org/w/kNLM1pQn1zm3ZTAJECFryFhttps://video.igem.org/lazy-static/thumbnails/8b77323b-8e6e-4790-a39c-d90393af8e61.jpgHUBU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/hubu-china)https://static.igem.org/peertube/streaming-playlists/hls/a0657130-1ebc-4da7-a97f-22dad3eb9883/277c114e-4f80-4150-a46a-4218569fe616-master.m3u8https://video.igem.org/videos/embed/kNLM1pQn1zm3ZTAJECFryF18000382023-11-10T13:37:40.390ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7qz5YTCTdHDEUBeVxrDVqahttps://video.igem.org/lazy-static/thumbnails/c83755ab-81ab-4281-b6d5-be49d6983a05.jpgSZU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/szu-china)https://static.igem.org/peertube/streaming-playlists/hls/34051284-9e7e-4fc7-b5f9-3fe6fe749965/f68c1ce3-4ae0-4c61-bd57-8429b4009faf-master.m3u8https://video.igem.org/videos/embed/7qz5YTCTdHDEUBeVxrDVqa180002162023-11-10T13:20:37.016ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9g7Pt3UEBN61XB2sk1BJxthttps://video.igem.org/lazy-static/thumbnails/2f2efef3-b644-4ed1-88e8-735f7e33dc8c.jpgUM-Macau: Judging Session (2023)[Wiki](https://2023.igem.wiki/um-macau)https://static.igem.org/peertube/streaming-playlists/hls/42e577c2-5d4a-42a6-a968-1a6a561b2b61/f68f9077-13a7-4596-99fe-7738a3ab533f-master.m3u8https://video.igem.org/videos/embed/9g7Pt3UEBN61XB2sk1BJxt18000122023-11-10T13:10:55.420ZYES2023 Judging SessionsNOhttps://video.igem.org/w/6Qybt94v4o1uGgJckLcJEJhttps://video.igem.org/lazy-static/thumbnails/df5d69b4-219f-4d90-ad88-6c307b38f2b1.jpgCNAS-Romania: Plaza Presentation (2023)CNAS-Romania: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/2f4539e7-5605-4cbc-a86c-acbd6144b6c6/3ac1d762-af01-4159-81ec-ce28a9540968-master.m3u8https://video.igem.org/videos/embed/6Qybt94v4o1uGgJckLcJEJ900062023-11-10T13:45:55.634ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/dtrm3m6MGxjdsEz9AmZADShttps://video.igem.org/lazy-static/thumbnails/8c304389-b4e0-4ebb-87ad-bbd1dd0e696c.jpgUTokyo: Judging Session (2023)[Wiki](https://2023.igem.wiki/utokyo)https://static.igem.org/peertube/streaming-playlists/hls/65025d8d-c8cf-427a-ae23-ee1ddf0fc544/a6c440e1-b2b0-40c4-b498-7436c593bb1c-master.m3u8https://video.igem.org/videos/embed/dtrm3m6MGxjdsEz9AmZADS18000532023-11-10T14:11:50.903ZYES2023 Judging SessionsNOhttps://video.igem.org/w/foyvFEgUL8oBhWAonezAsChttps://video.igem.org/lazy-static/thumbnails/e5144d26-a530-4032-a772-45f4f7045bce.jpgKUAS-SEOUL: Judging Session (2023)[Wiki](https://2023.igem.wiki/kuas-seoul)https://static.igem.org/peertube/streaming-playlists/hls/7486571c-b907-4e7c-a3ff-bb96e8ec0468/282b77ea-0027-4617-8703-800b2d9c0201-master.m3u8https://video.igem.org/videos/embed/foyvFEgUL8oBhWAonezAsC18000182023-11-10T14:21:10.061ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wAMnciMiqJV2vbe2eFocfehttps://video.igem.org/lazy-static/thumbnails/7a3f0fae-59d8-4b2e-96af-e09e0686b7ee.jpgSubCat-GD: Plaza Presentation (2023)SubCat-GD: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/f7cd67c9-8e8c-44cb-97af-fd64b6956085/e23b3d64-98e1-4290-b3db-e0c83b47701e-master.m3u8https://video.igem.org/videos/embed/wAMnciMiqJV2vbe2eFocfe900082023-11-10T14:39:18.763ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/7od9SH5SLftavRjYsxCxnZhttps://video.igem.org/lazy-static/thumbnails/997eede9-b4da-49ae-bb61-35ec58f6db63.jpgMontpellier: Judging Session (2023)[Wiki](https://2023.igem.wiki/montpellier)https://static.igem.org/peertube/streaming-playlists/hls/33b0af38-7626-481c-b989-f44ac5600b27/c0c4414f-171d-4842-9d78-1b9fa9cb7843-master.m3u8https://video.igem.org/videos/embed/7od9SH5SLftavRjYsxCxnZ1800062023-11-10T15:05:40.206ZYES2023 Judging SessionsNOhttps://video.igem.org/w/vMU8JmG4tL26enhQX7omUvhttps://video.igem.org/lazy-static/thumbnails/1ef9f019-f1a7-4ef6-96dd-fa35b2ab9a23.jpgSheffield: Judging Session (2023)[Wiki](https://2023.igem.wiki/sheffield)https://static.igem.org/peertube/streaming-playlists/hls/f1419e7b-142d-4c41-a2fa-9c9914391ce5/99be42ae-63ce-4dc1-a59a-2a26d70dc8e5-master.m3u8https://video.igem.org/videos/embed/vMU8JmG4tL26enhQX7omUv18000152023-11-10T15:23:13.493ZYES2023 Judging SessionsNOhttps://video.igem.org/w/akcc4fiSVvwQJGTZqaT691https://video.igem.org/lazy-static/thumbnails/fb91c636-164c-4abb-8ca6-ca03dcd6900c.jpgFZPt-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/fzpt-china)https://static.igem.org/peertube/streaming-playlists/hls/4b9046aa-35b8-4bfa-8350-d4dca5083dcc/0a243f02-1e3f-405e-82d5-0c171b195b31-master.m3u8https://video.igem.org/videos/embed/akcc4fiSVvwQJGTZqaT69118000772023-11-10T15:32:45.185ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4AGTjQokE9jRGmon6qMfjNhttps://video.igem.org/lazy-static/thumbnails/662f3bce-f39e-4087-a7a1-af255570f331.jpgTechnion-Israel: Plaza Presentation (2023)Technion-Israel: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/1d23e67f-550b-4ba2-b75a-233a5a2d9d22/d7f81b0d-40c0-4c01-8238-b18a38e63aa4-master.m3u8https://video.igem.org/videos/embed/4AGTjQokE9jRGmon6qMfjN900072023-11-10T15:13:56.369ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/7DDVr2J6HVRGJ9ZSiML2C8https://video.igem.org/lazy-static/thumbnails/055acd40-bfad-48a6-9f70-797a16c710ae.jpgTsinghua-A: Judging Session (2023)[Wiki](https://2023.igem.wiki/tsinghua-a)https://static.igem.org/peertube/streaming-playlists/hls/35d8b8a3-3711-45c2-9d1c-964b572b02a3/8e46b11f-e358-4a0b-a385-7b45cfd92ba7-master.m3u8https://video.igem.org/videos/embed/7DDVr2J6HVRGJ9ZSiML2C818000372023-11-10T15:41:47.187ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3xkJacY2qhzbZ6CkYEXRDvhttps://video.igem.org/lazy-static/thumbnails/fd2f4b5b-c485-4806-8c4d-3e5cfbec732c.jpgPekingHSC: Judging Session (2023)[Wiki](https://2023.igem.wiki/pekinghsc)https://static.igem.org/peertube/streaming-playlists/hls/14927dc6-638c-4eda-aba4-22328314a61b/d1e4c3c4-2842-4adc-b663-bf04162039ab-master.m3u8https://video.igem.org/videos/embed/3xkJacY2qhzbZ6CkYEXRDv18000282023-11-10T16:00:51.941ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uGTJbjhh3hQQV992JLe7hqhttps://video.igem.org/lazy-static/thumbnails/c69528d5-12c0-48ee-ae29-778a0522f42e.jpgIISER-Pune-India: Judging Session (2023)[Wiki](https://2023.igem.wiki/iiser-pune-india)https://static.igem.org/peertube/streaming-playlists/hls/e87582e4-afa3-4584-9c48-d3becdd5d5d8/fb6aa003-b2ba-43d5-a1c6-d0b8b2d060b4-master.m3u8https://video.igem.org/videos/embed/uGTJbjhh3hQQV992JLe7hq180001322023-11-10T16:20:29.585ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qWwb3QVoLiWWFhd8iGySE6https://video.igem.org/lazy-static/thumbnails/1cd2331c-d766-4b44-9724-f1856edbf191.jpgRainsACA-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/rainsaca-china)https://static.igem.org/peertube/streaming-playlists/hls/c9f8161b-1ea3-4f56-a223-68a1c953c089/cc77218e-49d0-4b93-aa2d-3ed17bdfc847-master.m3u8https://video.igem.org/videos/embed/qWwb3QVoLiWWFhd8iGySE61800042023-11-10T15:51:02.198ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7vjXPyo6QRsbRTz74UcyKvhttps://video.igem.org/lazy-static/thumbnails/c5a73007-096d-490c-b3e3-d08b207974b8.jpgPLKLFC-1: Judging Session (2023)[Wiki](https://2023.igem.wiki/plklfc-1)https://static.igem.org/peertube/streaming-playlists/hls/34af1658-ca41-45df-bbbb-a5c387e24b33/a9d94915-cfb5-4bda-b190-82ee20ca263a-master.m3u8https://video.igem.org/videos/embed/7vjXPyo6QRsbRTz74UcyKv18000272023-11-10T16:10:46.140ZYES2023 Judging SessionsNOhttps://video.igem.org/w/cex4GEbCphXNYwu2QifijPhttps://video.igem.org/lazy-static/thumbnails/932db610-a98a-45d7-9620-4c2c97a9cc2c.jpgXJTLU-CHINA: Judging Session (2023)[Wiki](https://2023.igem.wiki/xjtlu-china)https://static.igem.org/peertube/streaming-playlists/hls/5af85688-b129-4c2b-8d5b-e55c9359e827/4585f5ae-4fa5-4a8e-a213-26bea72e907d-master.m3u8https://video.igem.org/videos/embed/cex4GEbCphXNYwu2QifijP18000242023-11-10T16:30:09.671ZYES2023 Judging SessionsNOhttps://video.igem.org/w/kpgSqw3tPdJjbLPR2n5V1Ahttps://video.igem.org/lazy-static/thumbnails/0f7b4e91-ee99-4e5c-a44b-480cbefac5e1.jpgToulouse-INSA-UPS: Judging Session (2023)[Wiki](https://2023.igem.wiki/toulouse-insa-ups)https://static.igem.org/peertube/streaming-playlists/hls/9d1d8566-11ed-4a6e-bd09-62f5f81010e6/c6b9a3ee-6733-43db-bafe-7c530f83fb86-master.m3u8https://video.igem.org/videos/embed/kpgSqw3tPdJjbLPR2n5V1A18000282023-11-10T16:47:16.468ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9caz4q85A3riQDWNmCvoJDhttps://video.igem.org/lazy-static/thumbnails/dd391103-6d3a-4b2e-ad34-200567e8e94f.jpgGuangzhou-MedX: Judging Session (2023)[Wiki](https://2023.igem.wiki/guangzhou-medx)https://static.igem.org/peertube/streaming-playlists/hls/4258303e-edca-4724-ae75-1b3d2131af89/1c304790-4c93-4783-a4d1-5a08adf1938c-master.m3u8https://video.igem.org/videos/embed/9caz4q85A3riQDWNmCvoJD1800042023-11-10T16:56:21.738ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uD8vELKFLD1xHzz6qdqYPnhttps://video.igem.org/lazy-static/thumbnails/049040c4-ca31-487c-bc70-e7a769015c02.jpgZJU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/zju-china)https://static.igem.org/peertube/streaming-playlists/hls/e7ef07f6-f021-4443-88bd-69c0610b72db/f4aa3249-6455-4d70-82ba-2eb84bef83fc-master.m3u8https://video.igem.org/videos/embed/uD8vELKFLD1xHzz6qdqYPn180002652023-11-10T17:06:03.956ZYES2023 Judging SessionsNOhttps://video.igem.org/w/vfGgodRUZuwP7CqYbNxK8ehttps://video.igem.org/lazy-static/thumbnails/027a0abb-d28d-44d0-ae76-ae5ecd461c56.jpgNavarraBG: Plaza Presentation (2023)NavarraBG: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/ece63f8d-1ffd-4bf9-a74c-69c6465f38a7/2e002245-01b1-4165-8d46-cd9f358efb24-master.m3u8https://video.igem.org/videos/embed/vfGgodRUZuwP7CqYbNxK8e900032023-11-10T17:40:38.328ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/1yVhsvSQYqB2aWsVCToaWehttps://video.igem.org/lazy-static/thumbnails/9b03c91b-ad20-4874-9a3e-97fe10e84476.jpgNJMU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/njmu-china)https://static.igem.org/peertube/streaming-playlists/hls/0498a34e-5548-4d41-88e9-246d56b21eed/26ec05b2-5a9f-4e00-a56d-727c6bf446b7-master.m3u8https://video.igem.org/videos/embed/1yVhsvSQYqB2aWsVCToaWe1800012023-11-10T17:57:51.678ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wiDDnzYzM5rqXdQPxSykBYhttps://video.igem.org/lazy-static/thumbnails/449eb8d3-9333-4f03-87c9-1fa2d10de105.jpgHainanU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/hainanu-china)https://static.igem.org/peertube/streaming-playlists/hls/f56900c7-7137-4c4a-a6d0-995b97253a12/73f177cc-a422-4f96-8fa2-5f64f127d443-master.m3u8https://video.igem.org/videos/embed/wiDDnzYzM5rqXdQPxSykBY18000212023-11-10T18:41:10.952ZYES2023 Judging SessionsNOhttps://video.igem.org/w/tMNyHdpBqDPirJnyLd5gpPhttps://video.igem.org/lazy-static/thumbnails/6ee90855-3fc8-4995-90d4-ec6a119a3581.jpgUSTC-Software: Judging Session (2023)[Wiki](https://2023.igem.wiki/ustc-software)https://static.igem.org/peertube/streaming-playlists/hls/e10be8d7-9085-47a9-883f-2477e933ebe1/2da99e12-b4fe-42eb-b9a9-f73837e61a12-master.m3u8https://video.igem.org/videos/embed/tMNyHdpBqDPirJnyLd5gpP1800072023-11-10T18:31:27.973ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wcyhGViVAG7f6gDZGxBTNBhttps://video.igem.org/lazy-static/thumbnails/380657d0-f1fb-4e06-92cd-a84f57ad05c7.jpgIIT-Roorkee: Judging Session (2023)[Wiki](https://2023.igem.wiki/iit-roorkee)https://static.igem.org/peertube/streaming-playlists/hls/f48f3d4e-140c-4b74-895c-8c0a666393e3/b3cc247f-68ff-4718-bb50-658a4ee74547-master.m3u8https://video.igem.org/videos/embed/wcyhGViVAG7f6gDZGxBTNB18000352023-11-10T18:50:48.568ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uJbtY1Z8f7eBe4NmMEc4TJhttps://video.igem.org/lazy-static/thumbnails/ca577d4a-fe83-4f8d-9da3-f783b33d5b58.jpgKeystone: Judging Session (2023)[Wiki](https://2023.igem.wiki/keystone)https://static.igem.org/peertube/streaming-playlists/hls/e8a394a7-d587-4569-9cb1-80c934da995c/58cded6c-4aed-4fd2-9cdb-1aaef2aa1bb1-master.m3u8https://video.igem.org/videos/embed/uJbtY1Z8f7eBe4NmMEc4TJ1800092023-11-10T19:10:06.828ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qFji8UYjKMMa5tfZ1HRVdLhttps://video.igem.org/lazy-static/thumbnails/e94537c6-eef9-4d3a-b0e5-1f940020a1c6.jpgUESTC-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/uestc-china)https://static.igem.org/peertube/streaming-playlists/hls/c7d89c1e-ccdf-4c2e-9180-63a12cb20ad0/25ec1b2d-946b-4c5c-8415-546b995b75e8-master.m3u8https://video.igem.org/videos/embed/qFji8UYjKMMa5tfZ1HRVdL18000192023-11-10T19:47:58.365ZYES2023 Judging SessionsNOhttps://video.igem.org/w/2Tof5JV7ofHpJLLbsLDdwJhttps://video.igem.org/lazy-static/thumbnails/ae53281c-6d41-43c5-90c4-7888e5f06bad.jpgBZK: Judging Session (2023)[Wiki](https://2023.igem.wiki/bzk)https://static.igem.org/peertube/streaming-playlists/hls/0f45c74e-1751-4d6b-bc0e-99a883723dee/181c1957-ab64-4c9f-8cc5-ce3d2402596a-master.m3u8https://video.igem.org/videos/embed/2Tof5JV7ofHpJLLbsLDdwJ18000122023-11-10T19:20:10.444ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8EwiuqZbq4csCQH351SvqQhttps://video.igem.org/lazy-static/thumbnails/f9bee3c2-2f5c-4716-9ad0-b9a662b8c78a.jpgSWUer-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/swuer-china)https://static.igem.org/peertube/streaming-playlists/hls/3e10e86a-9a8d-4167-9abc-4480a874b804/1da9f0a1-cbd9-42a6-9039-7a013e3fbe30-master.m3u8https://video.igem.org/videos/embed/8EwiuqZbq4csCQH351SvqQ1800062023-11-10T19:29:18.786ZYES2023 Judging SessionsNOhttps://video.igem.org/w/fL9D2XrTnByyxdLSTUii61https://video.igem.org/lazy-static/thumbnails/bbcddafd-b68c-4f1b-b01e-19c03cd9edb6.jpgWestCentral-HS: Judging Session (2023)[Wiki](https://2023.igem.wiki/westcentral-hs)https://static.igem.org/peertube/streaming-playlists/hls/7789fda4-9090-4e4a-871a-3abd98d27bce/02e967f1-2139-432f-87dc-a0f97a88cf67-master.m3u8https://video.igem.org/videos/embed/fL9D2XrTnByyxdLSTUii611800032023-11-10T20:16:29.924ZYES2023 Judging SessionsNOhttps://video.igem.org/w/55QoXYAzpCzNjiBUg6UBcUhttps://video.igem.org/lazy-static/thumbnails/27ee8099-39f5-4aa4-9180-871fb6639be8.jpgUCAS-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/ucas-china)https://static.igem.org/peertube/streaming-playlists/hls/21115ad3-1d3c-4773-aaf7-f237e428fdee/b7fc2f92-30bc-4a71-b4f1-9b2fd9a6b09d-master.m3u8https://video.igem.org/videos/embed/55QoXYAzpCzNjiBUg6UBcU18000932023-11-10T19:57:27.188ZYES2023 Judging SessionsNOhttps://video.igem.org/w/8LQVhedjCZSi3wk8SEBGsGhttps://video.igem.org/lazy-static/thumbnails/9469b52e-7543-47cf-acbd-810ffa7ba2c8.jpgNCHU-Taichung: Judging Session (2023)[Wiki](https://2023.igem.wiki/nchu-taichung)https://static.igem.org/peertube/streaming-playlists/hls/3ef2d7fa-ae33-44a2-81f9-8e934dec3a04/9aa17d49-2f0d-4469-a991-35f715a24f98-master.m3u8https://video.igem.org/videos/embed/8LQVhedjCZSi3wk8SEBGsG1800082023-11-10T19:38:52.027ZYES2023 Judging SessionsNOhttps://video.igem.org/w/9GohRqbTysZiHR8W38zqw8https://video.igem.org/lazy-static/thumbnails/2f4b86ff-7ba1-44cd-aa97-54eff9cb7fdc.jpgWUST-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/wust-china)https://static.igem.org/peertube/streaming-playlists/hls/466c98dc-e6a5-4056-9801-4f90bc2eea0b/c3ad57cb-253c-4292-a6ba-98c6a430982e-master.m3u8https://video.igem.org/videos/embed/9GohRqbTysZiHR8W38zqw818000232023-11-10T20:07:29.795ZYES2023 Judging SessionsNOhttps://video.igem.org/w/t2HoDCghRQ2zhbhqWN7YXQhttps://video.igem.org/lazy-static/thumbnails/e7a92a1e-0402-4ec7-9c34-88684fc65149.jpgPure Parts Editor - Hackathon Pitch (2023) [English]Pure Parts Editor - Hackathon Pitch (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/dae3fed1-c911-4ec5-9d24-50d1d0fec616/d06a529f-71a7-478d-aa9a-d34919d79a91-master.m3u8https://video.igem.org/videos/embed/t2HoDCghRQ2zhbhqWN7YXQ120022023-11-04T10:12:44.042ZpartpartshackathonYESiGEM 2023 TeamsNOhttps://video.igem.org/w/x6sBf4DrS7tFvDsDusmJHQhttps://video.igem.org/lazy-static/thumbnails/f5b6ff1e-4a38-4be4-bd60-431926eab2f5.jpgSZ-SHD: Plaza Presentation (2023)SZ-SHD: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/fbce6a33-2e29-4960-a818-b9e1e0afb0e2/a5a4f792-85a2-4e18-a1b2-d5c8f283911a-master.m3u8https://video.igem.org/videos/embed/x6sBf4DrS7tFvDsDusmJHQ9000182023-11-10T20:58:27.246ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/a7badoNEaBpUv8859rHYK3https://video.igem.org/lazy-static/thumbnails/d58b32fa-0c4f-40fb-a600-1345daf325e7.jpgKyoto: Findogenetics - Hackathon Pitch (2023) [English]Kyoto: Findogenetics - Hackathon Pitch (2023) [English]https://static.igem.org/peertube/streaming-playlists/hls/49bef89f-192d-4eb2-9cce-e7c6a74f4118/33fd7158-0cbb-4cc7-8d4a-51f381dc525c-master.m3u8https://video.igem.org/videos/embed/a7badoNEaBpUv8859rHYK3117032023-11-04T11:13:56.873ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/syQZQKijrHv4scyFxiE4UAhttps://video.igem.org/lazy-static/thumbnails/012c48c8-d7e9-48d6-8cfa-d1eb97963867.jpgPolYneer - Hackathon Pitch (2023) [English]Hackathon Demohttps://static.igem.org/peertube/streaming-playlists/hls/d72399f7-2622-4f38-9dd8-d4264f596876/1d5b15e3-8310-4102-985d-5b775969a8df-master.m3u8https://video.igem.org/videos/embed/syQZQKijrHv4scyFxiE4UA97032023-11-04T11:43:08.918ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/xazc4weeNF9AuXzJKV9yjehttps://video.igem.org/lazy-static/thumbnails/12860a88-ffed-4b31-b761-e4824695d4c8.jpgPINGHE: Plaza Presentation (2023)PINGHE: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/fc617267-26d1-4a5e-b239-4515b82a7811/c811614d-cc64-48f7-9a07-fe8225b03e00-master.m3u8https://video.igem.org/videos/embed/xazc4weeNF9AuXzJKV9yje900042023-11-10T21:49:04.093ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/qdzwY8VtxH3gTnTHjyF5D7https://video.igem.org/lazy-static/thumbnails/c6d7eb91-8b4c-4967-8e97-acc247b4653f.jpgXMU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/xmu-china)https://static.igem.org/peertube/streaming-playlists/hls/c41ceb49-fbef-47e1-8726-8a7feaea7710/3d65e894-743a-4b91-83d1-c187b3c7a79d-master.m3u8https://video.igem.org/videos/embed/qdzwY8VtxH3gTnTHjyF5D718000262023-11-10T22:25:01.390ZYES2023 Judging SessionsNOhttps://video.igem.org/w/cTrvrZdZQLBMW6PLN3XHrchttps://video.igem.org/lazy-static/thumbnails/7980a381-6aa8-4d84-84dd-8fbd0bf1d5cc.jpgNTHU-Taiwan: Judging Session (2023)[Wiki](https://2023.igem.wiki/nthu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/60432d5e-8b5f-4cf0-8a64-c2bcdfb7e971/3d142c4c-3e2a-4245-85fc-1215cbc4ff46-master.m3u8https://video.igem.org/videos/embed/cTrvrZdZQLBMW6PLN3XHrc18000322023-11-10T22:15:20.303ZYES2023 Judging SessionsNOhttps://video.igem.org/w/c72aLXF1tJrvZ5zQhADr6Whttps://video.igem.org/lazy-static/thumbnails/fb3995f0-c557-4862-bf4c-d6bd7beb0df7.jpgBielefeld-CeBiTec: Judging Session (2023)[Wiki](https://2023.igem.wiki/bielefeld-cebitec)https://static.igem.org/peertube/streaming-playlists/hls/59ebb540-9447-4cc6-9e0d-429193e21844/569adc72-8fa4-464f-b39d-2dd54c1f47b7-master.m3u8https://video.igem.org/videos/embed/c72aLXF1tJrvZ5zQhADr6W18000362023-11-10T22:43:49.940ZYES2023 Judging SessionsNOhttps://video.igem.org/w/vjBttTe5Bgg6SB5XZTEisThttps://video.igem.org/lazy-static/thumbnails/36059f0f-fd5c-4986-94aa-412f5cd8feff.jpgBFSU-ICUnited: Judging Session (2023)[Wiki](https://2023.igem.wiki/bfsu-icunited)https://static.igem.org/peertube/streaming-playlists/hls/ed724540-19d1-4eff-88c9-aa19dfa706fb/df12d913-d400-41e2-990b-fac266565dce-master.m3u8https://video.igem.org/videos/embed/vjBttTe5Bgg6SB5XZTEisT18000102023-11-10T22:52:50.473ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7fGHyuCUyhmg8oHJQU7TjWhttps://video.igem.org/lazy-static/thumbnails/51996d39-5f02-4a97-afbb-64a499339e37.jpgSHSID-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/shsid-china)https://static.igem.org/peertube/streaming-playlists/hls/32a45653-543a-4010-a092-f8b2350a31a6/0772084f-8758-4737-8a98-884375c453b9-master.m3u8https://video.igem.org/videos/embed/7fGHyuCUyhmg8oHJQU7TjW18000142023-11-10T22:34:09.631ZYES2023 Judging SessionsNOhttps://video.igem.org/w/a8B2EFxfFQRATyRK8XEWbWhttps://video.igem.org/lazy-static/thumbnails/db435b2b-45c3-4d4a-8c50-fc3ebd390949.jpgTJUSLS-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/tjusls-china)https://static.igem.org/peertube/streaming-playlists/hls/49f20aa3-8b83-4391-9830-219a43d9dd12/e7046328-99a4-495e-8e8a-0bee6dc7a28c-master.m3u8https://video.igem.org/videos/embed/a8B2EFxfFQRATyRK8XEWbW18000492023-11-10T23:02:00.895ZYES2023 Judging SessionsNOhttps://video.igem.org/w/2xPPr4tM73s5pU7vod7kvvhttps://video.igem.org/lazy-static/thumbnails/00a16271-c705-4ab5-9bfb-8980f4411fc9.jpgPeking: Judging Session (2023)[Wiki](https://2023.igem.wiki/peking)https://static.igem.org/peertube/streaming-playlists/hls/0c8aaa0f-1714-4d0e-ab39-a0854d4dd40b/8498110c-0762-41e5-a477-0ae03601848a-master.m3u8https://video.igem.org/videos/embed/2xPPr4tM73s5pU7vod7kvv18000552023-11-10T23:11:26.947ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4gggQpDnrp3PTCooJv3XHQhttps://video.igem.org/lazy-static/thumbnails/1b05cfdf-b764-42d8-bcba-5137e438dcb6.jpgHangzhou-SDG: Judging Session (2023)[Wiki](https://2023.igem.wiki/hangzhou-sdg)https://static.igem.org/peertube/streaming-playlists/hls/1a6cfc1f-9988-4243-aa65-7d19605b5616/02381e71-d69b-440c-ac8a-aef16765fd3c-master.m3u8https://video.igem.org/videos/embed/4gggQpDnrp3PTCooJv3XHQ1800062023-11-10T23:21:03.065ZYES2023 Judging SessionsNOhttps://video.igem.org/w/eEuwiPS93KbCeHmKkAziaFhttps://video.igem.org/lazy-static/thumbnails/480764eb-2caf-4e95-b79b-08e32a218f8c.jpgHamburg: Judging Session (2023)[Wiki](https://2023.igem.wiki/hamburg)https://static.igem.org/peertube/streaming-playlists/hls/6ea6a4bb-1795-434b-96c7-8707b4a0617d/a9843d84-8b4e-46b4-b99f-4727adb483c8-master.m3u8https://video.igem.org/videos/embed/eEuwiPS93KbCeHmKkAziaF18000592023-11-10T23:30:44.896ZYES2023 Judging SessionsNOhttps://video.igem.org/w/haxhSzsJ74guKm4MRJwajMhttps://video.igem.org/lazy-static/thumbnails/abe0ceea-956c-40d2-9509-0479f96b18a6.jpgTec-Chihuahua: Judging Session (2023)[Wiki](https://2023.igem.wiki/tec-chihuahua)https://static.igem.org/peertube/streaming-playlists/hls/82e73239-849c-445c-9fe6-aeb3dd0ff635/3de87841-bc96-446c-8c2a-fda1722bba6f-master.m3u8https://video.igem.org/videos/embed/haxhSzsJ74guKm4MRJwajM180001122023-11-10T23:40:28.226ZYES2023 Judging SessionsNOhttps://video.igem.org/w/raXWXer8qHSrv7GWNyba7yhttps://video.igem.org/lazy-static/thumbnails/b9c927ff-27b2-414d-801e-6e549191ec6e.jpgExParts: By PolYneer - Hackathon Pitch (2023) [English]ExParts: By PolYneer in iGEM 2023 Hackathon https://static.igem.org/peertube/streaming-playlists/hls/cbd8a3a7-5f3b-4450-a099-a6ec08ba7390/9dc38030-01f7-4c73-ba22-9f14ff775ca1-master.m3u8https://video.igem.org/videos/embed/raXWXer8qHSrv7GWNyba7y120012023-11-11T13:32:31.660ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ry24KVJXbxyEQm4pQU4woEhttps://video.igem.org/lazy-static/thumbnails/7ee14e83-ecc8-4a19-af92-938edb58e71a.jpgStockholm: Judging Session (2023)[Wiki](https://2023.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/ceecec5f-ad94-48a7-a49d-7f2b73a4de52/0ef39610-5068-495e-a45b-6489989d8d55-master.m3u8https://video.igem.org/videos/embed/ry24KVJXbxyEQm4pQU4woE18000122023-11-11T01:12:45.165ZYES2023 Judging SessionsNOhttps://video.igem.org/w/s6StjFDVicJ1ySy9eKjrWchttps://video.igem.org/lazy-static/thumbnails/3657a85b-c763-4387-8d86-618fa89173a4.jpgThinker-Guangdong: Judging Session (2023)[Wiki](https://2023.igem.wiki/thinker-guangdong)https://static.igem.org/peertube/streaming-playlists/hls/d35f6d8b-acc2-49b0-be27-6d434e438a6b/eaa24736-4b87-44f5-bff5-66be16de0464-master.m3u8https://video.igem.org/videos/embed/s6StjFDVicJ1ySy9eKjrWc18000202023-11-11T01:22:04.509ZYES2023 Judging SessionsNOhttps://video.igem.org/w/dUzJZ1KXoXL1MxPkUBoC3phttps://video.igem.org/lazy-static/thumbnails/eefc150d-8687-435a-8715-e98b08dc2760.jpgGroningen: Judging Session (2023)[Wiki](https://2023.igem.wiki/groningen)https://static.igem.org/peertube/streaming-playlists/hls/68852236-6b6f-47f6-a8e0-74290d1d4bfb/ef238833-960b-466e-b739-c3bf8c45cf0e-master.m3u8https://video.igem.org/videos/embed/dUzJZ1KXoXL1MxPkUBoC3p18000212023-11-11T01:31:09.134ZYES2023 Judging SessionsNOhttps://video.igem.org/w/ns98HY9k7B1VoKkzrLhFFZhttps://video.igem.org/lazy-static/thumbnails/bd9c2346-197f-4115-958c-e8fd7f796a6e.jpgTsinghua: Judging Session (2023)[Wiki](https://2023.igem.wiki/tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/adb6431a-5bf3-4f95-898b-fd4e322d682b/a2b35d7e-6dbb-464f-8d82-1817f324aec7-master.m3u8https://video.igem.org/videos/embed/ns98HY9k7B1VoKkzrLhFFZ180001102023-11-11T01:40:50.793ZYES2023 Judging SessionsNOhttps://video.igem.org/w/hfYDkM7WRyHaaHAv8gGCqghttps://video.igem.org/lazy-static/thumbnails/8ef23f4d-4988-4d9b-bbc9-413e81a7ea03.jpgSDU-Denmark: Judging Session (2023)[Wiki](https://2023.igem.wiki/sdu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/83a98a11-6a62-4e43-917c-7e8806bde95f/bb1af9b1-353b-4525-a5cd-e108ae1671ac-master.m3u8https://video.igem.org/videos/embed/hfYDkM7WRyHaaHAv8gGCqg18000592023-11-11T01:50:33.811ZYES2023 Judging SessionsNOhttps://video.igem.org/w/mnxfHKDamzacHfYwgRsVg9https://video.igem.org/lazy-static/thumbnails/11b7b35b-80b8-4764-b6e5-3df4a7b5ab7c.jpgICT-Mumbai: Judging Session (2023)[Wiki](https://2023.igem.wiki/ict-mumbai)https://static.igem.org/peertube/streaming-playlists/hls/a4f8a738-4b83-4fc7-b8ba-cb5259974be2/2dea7b53-4ae9-49bb-b88e-0c57df19dc44-master.m3u8https://video.igem.org/videos/embed/mnxfHKDamzacHfYwgRsVg918000102023-11-11T02:00:14.154ZYES2023 Judging SessionsNOhttps://video.igem.org/w/iqFwBLunpVw7ZaHKmjZo2zhttps://video.igem.org/lazy-static/thumbnails/7beac3c0-56c5-45af-a1b9-dba9a1072b63.jpgSVCE-CHENNAI: Judging Session (2023)[Wiki](https://2023.igem.wiki/svce-chennai)https://static.igem.org/peertube/streaming-playlists/hls/8d1d914f-613e-475a-8e36-eb2bb8d5363b/c90b4ad1-0486-4434-bd57-f7d478250a64-master.m3u8https://video.igem.org/videos/embed/iqFwBLunpVw7ZaHKmjZo2z18000532023-11-11T02:10:16.376ZYES2023 Judging SessionsNOhttps://video.igem.org/w/ajn1HthBGo3qkzYSbHy7pDhttps://video.igem.org/lazy-static/thumbnails/543b9c5e-c381-4f5b-b16b-4ba7128c93e3.jpgSubCat-HongKong: Judging Session (2023)[Wiki](https://2023.igem.wiki/subcat-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/4b7295c9-91c7-4492-a0b2-2900559dcc83/ecb39536-5c9d-4ef1-b1f7-da0bfcfaa924-master.m3u8https://video.igem.org/videos/embed/ajn1HthBGo3qkzYSbHy7pD18000112023-11-11T03:00:49.779ZYES2023 Judging SessionsNOhttps://video.igem.org/w/fRuVtKrMoGDMzJ7p5xfr6nhttps://video.igem.org/lazy-static/thumbnails/bd5911e7-c7ac-4537-8600-bea95736ae07.jpgBGI-MammothEdu-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/bgi-mammothedu-china)https://static.igem.org/peertube/streaming-playlists/hls/784935b6-345c-4d82-ace4-710ba607f21b/0f7b65c6-4f47-424c-9063-79ee81231f02-master.m3u8https://video.igem.org/videos/embed/fRuVtKrMoGDMzJ7p5xfr6n18000212023-11-11T03:10:47.264ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wnmWUyxQWRj42HYXt3yg64https://video.igem.org/lazy-static/thumbnails/9d6a2f58-d589-4fd7-adb6-343cd9790fdd.jpgTecMonterreyGDL: Judging Session (2023)[Wiki](https://2023.igem.wiki/tecmonterreygdl)https://static.igem.org/peertube/streaming-playlists/hls/f5edb014-1e94-44f9-96f1-0b157876e001/727c71e4-4fcb-43b7-b225-60f512036f2d-master.m3u8https://video.igem.org/videos/embed/wnmWUyxQWRj42HYXt3yg6418000242023-11-11T03:28:22.922ZYES2023 Judging SessionsNOhttps://video.igem.org/w/3pi7CCT8oV7p72rNfftmWPhttps://video.igem.org/lazy-static/thumbnails/0de02878-1850-471a-8f38-ce70af2b93c9.jpgBioplus-Shanghai: Plaza Presentation (2023)Bioplus-Shanghai: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/1372ee5d-9ed6-4cda-b838-61073b38da13/f0398066-870d-47a5-a347-9944c53a6fcd-master.m3u8https://video.igem.org/videos/embed/3pi7CCT8oV7p72rNfftmWP9000172023-11-11T03:45:12.928ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/uQRMHZCTaf16CPb15vnJqxhttps://video.igem.org/lazy-static/thumbnails/ae406be1-e382-45c0-8756-3f2c122176bc.jpgBioplus-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/bioplus-china)https://static.igem.org/peertube/streaming-playlists/hls/e992443f-bf28-4c4a-8153-21728ffff80f/de239b46-dd5f-4625-be36-fcbaeffcf303-master.m3u8https://video.igem.org/videos/embed/uQRMHZCTaf16CPb15vnJqx18000182023-11-11T04:01:41.466ZYES2023 Judging SessionsNOhttps://video.igem.org/w/mCF7FTi3MEWZrZda1dKASUhttps://video.igem.org/lazy-static/thumbnails/1d0eb1cb-40e7-4c3b-878f-87f77a156ce6.jpgKyoto: Judging Session (2023)[Wiki](https://2023.igem.wiki/kyoto)https://static.igem.org/peertube/streaming-playlists/hls/a715a792-bae6-4411-aede-ca7a013a7908/d21d9cee-5e42-47df-a01a-baef43e63ce4-master.m3u8https://video.igem.org/videos/embed/mCF7FTi3MEWZrZda1dKASU18000502023-11-11T04:11:39.507ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qX7LoB9p9ftXef2g3j2hCRhttps://video.igem.org/lazy-static/thumbnails/5ea6e5f7-94bd-418c-897f-b6bfa438ac7e.jpgNIS-Kazakhstan: Judging Session (2023)[Wiki](https://2023.igem.wiki/nis-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/ca0d678b-f049-446f-ac66-003924b66761/1c0b5785-eb92-479f-acc1-8b8ea2b5a9f6-master.m3u8https://video.igem.org/videos/embed/qX7LoB9p9ftXef2g3j2hCR18000682023-11-11T04:20:59.438ZYES2023 Judging SessionsNOhttps://video.igem.org/w/fAW6LxwRdL7FUygqgLuWDfhttps://video.igem.org/lazy-static/thumbnails/431a4031-a4d5-4c12-99b1-79e55b14731d.jpgNWU-CHINA-A: Judging Session (2023)[Wiki](https://2023.igem.wiki/nwu-china-a)https://static.igem.org/peertube/streaming-playlists/hls/764091c3-8074-444d-bc42-2eb98469f508/5b80bd2e-2e86-4204-bd09-88bd76034edd-master.m3u8https://video.igem.org/videos/embed/fAW6LxwRdL7FUygqgLuWDf18000612023-11-11T04:30:48.504ZYES2023 Judging SessionsNOhttps://video.igem.org/w/umx4naZ1XTAabUidhQ9mgNhttps://video.igem.org/lazy-static/thumbnails/41d3a058-95d0-42ea-98dc-2f42d7d0bcf8.jpgBJHS: Judging Session (2023)[Wiki](https://2023.igem.wiki/bjhs)https://static.igem.org/peertube/streaming-playlists/hls/e59de5e7-797c-488d-a31e-dcd3253e6224/f7f38299-569e-4f14-a329-bdcf6c5d0648-master.m3u8https://video.igem.org/videos/embed/umx4naZ1XTAabUidhQ9mgN1800062023-11-11T04:40:40.517ZYES2023 Judging SessionsNOhttps://video.igem.org/w/sj8QHZ9vFQHMiuCuXosaophttps://video.igem.org/lazy-static/thumbnails/5358f86b-46a0-457b-999c-5ad7e79a9962.jpgSYPHU-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/syphu-china)https://static.igem.org/peertube/streaming-playlists/hls/d515d31b-2036-42c7-9947-8682d2730327/905436e0-300a-4d5d-a5e1-34f489689675-master.m3u8https://video.igem.org/videos/embed/sj8QHZ9vFQHMiuCuXosaop18000472023-11-11T05:15:20.996ZYES2023 Judging SessionsNOhttps://video.igem.org/w/f9yPtjLZpqGNrFo9rDKbtNhttps://video.igem.org/lazy-static/thumbnails/451fb5de-a02d-493f-9168-6def82eb09a9.jpgULaval: Judging Session (2023)[Wiki](https://2023.igem.wiki/ulaval)https://static.igem.org/peertube/streaming-playlists/hls/72921dd2-dee5-41cc-b720-34ced5a2f05c/40b28b3d-c814-4449-8a9e-352c2b018ab0-master.m3u8https://video.igem.org/videos/embed/f9yPtjLZpqGNrFo9rDKbtN18000132023-11-11T05:24:56.266ZYES2023 Judging SessionsNOhttps://video.igem.org/w/qXSMQd5CgdzeRYvo9Ldtk4https://video.igem.org/lazy-static/thumbnails/bb7cfa49-fb59-40d3-8b20-f7ff03a370c3.jpgTokyoTech: Judging Session (2023)[Wiki](https://2023.igem.wiki/tokyotech)https://static.igem.org/peertube/streaming-playlists/hls/ca288927-71a9-4e91-9264-6d2b8b6554bd/7a368f4c-a885-4c4c-af12-daa91b3161e6-master.m3u8https://video.igem.org/videos/embed/qXSMQd5CgdzeRYvo9Ldtk418000472023-11-11T05:33:47.156ZYES2023 Judging SessionsNOhttps://video.igem.org/w/vyrdyPsCPMZy8Fd1aFUfdPhttps://video.igem.org/lazy-static/thumbnails/5c67d158-cf28-4128-a55a-fff67eca95f5.jpgDTU-Denmark: Judging Session (2023)[Wiki](https://2023.igem.wiki/dtu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/ef605cb2-2dfb-4402-8ee9-dc551bfc3e0f/1014eb52-cb79-44e2-b7be-f5da8bae0c2f-master.m3u8https://video.igem.org/videos/embed/vyrdyPsCPMZy8Fd1aFUfdP18000572023-11-11T06:58:07.449ZYES2023 Judging SessionsNOhttps://video.igem.org/w/whxZgmknk3BqvnyrBQ3sPBhttps://video.igem.org/lazy-static/thumbnails/ee92f4ef-6f8d-4bf5-aa70-bf3affe707a2.jpgFSHS-GD: Plaza Presentation (2023)FSHS-GD: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/f541c5e3-cbfd-44e1-ba2e-8c71667bc7e1/c5681d56-c92b-4f00-b554-f95bc046881f-master.m3u8https://video.igem.org/videos/embed/whxZgmknk3BqvnyrBQ3sPB900052023-11-11T07:15:11.463ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/qTEFBX69tgBoveLaba1GuXhttps://video.igem.org/lazy-static/thumbnails/ec65bef2-3e91-4aba-9cd6-c88a5f1b2160.jpgWego-Taipei: Judging Session (2023)[Wiki](https://2023.igem.wiki/wego-taipei)https://static.igem.org/peertube/streaming-playlists/hls/c9921973-6b09-401f-a527-8d465e7cc73f/6ddb913a-4bd2-48f5-9f47-8c0f5813b5e6-master.m3u8https://video.igem.org/videos/embed/qTEFBX69tgBoveLaba1GuX18000442023-11-11T07:32:50.080ZYES2023 Judging SessionsNOhttps://video.igem.org/w/x71zXHS41UBY8cobtQVHJehttps://video.igem.org/lazy-static/thumbnails/14bfd5c2-c531-46f8-b09d-a988301f0ebd.jpgWrightState-OH: Plaza Presentation (2023)WrightState-OH: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/fbe21f36-7c62-4eab-a871-feda7b3fc7fd/d3c0ad06-c820-4bef-a516-d44586ef5c3a-master.m3u8https://video.igem.org/videos/embed/x71zXHS41UBY8cobtQVHJe900022023-11-11T07:41:29.857ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/r3dQaoHYvX2ftUsNC6bnjRhttps://video.igem.org/lazy-static/thumbnails/d69ee25e-b8dc-4183-8048-21609be9c6e6.jpgZhejiang-United: Plaza Presentation (2023)Zhejiang-United: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/cac3dc6d-3159-46af-8e4d-356ddb41bc19/5920f094-07ea-4061-b250-0fb73c63b8ab-master.m3u8https://video.igem.org/videos/embed/r3dQaoHYvX2ftUsNC6bnjR9000122023-11-11T08:25:10.081ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/8n6RfY31XBbetMBqYvN4wUhttps://video.igem.org/lazy-static/thumbnails/81baa17f-b162-475e-b5eb-83c4d6324ebc.jpgWilliam-and-Mary: Judging Session (2023)[Wiki](https://2023.igem.wiki/william-and-mary)https://static.igem.org/peertube/streaming-playlists/hls/3ba231cd-05a1-4919-946e-9afa73aefbec/e0dc2ea8-e46b-44f0-8f88-f97fc094c4a7-master.m3u8https://video.igem.org/videos/embed/8n6RfY31XBbetMBqYvN4wU18000932023-11-11T08:06:26.365ZYES2023 Judging SessionsNOhttps://video.igem.org/w/gf1tfabngGBpQmPSDXejFEhttps://video.igem.org/lazy-static/thumbnails/57b567bf-a753-4758-90fa-69974d95fd3f.jpgUni-Padua-IT: Judging Session (2023)[Wiki](https://2023.igem.wiki/uni-padua-it)https://static.igem.org/peertube/streaming-playlists/hls/7b6dc83b-8e93-49ee-b43b-aed7b5c8261c/38c3d27d-cd01-4951-883a-f7b56548ae8b-master.m3u8https://video.igem.org/videos/embed/gf1tfabngGBpQmPSDXejFE18000412023-11-11T08:15:51.131ZYES2023 Judging SessionsNOhttps://video.igem.org/w/hLWJSmCtZwzK67DnfN5jF7https://video.igem.org/lazy-static/thumbnails/637eb4d6-70c4-4424-98f6-20fbdfe4aa04.jpgHKU-HongKong: Judging Session (2023)[Wiki](https://2023.igem.wiki/hku-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/87d8adb9-95ce-4545-a541-80a780c4c964/4123e707-b452-4235-a2fe-6f5ae053da48-master.m3u8https://video.igem.org/videos/embed/hLWJSmCtZwzK67DnfN5jF718000502023-11-11T08:33:53.819ZYES2023 Judging SessionsNOhttps://video.igem.org/w/bU5UEJrsveJ6XiuSJQFJhKhttps://video.igem.org/lazy-static/thumbnails/25c601f0-7710-461f-84fc-623c05bcbbcc.jpgOTIA-Hangzhou: Judging Session (2023)[Wiki](https://2023.igem.wiki/otia-hangzhou)https://static.igem.org/peertube/streaming-playlists/hls/5841165c-15aa-4f9a-9a8c-14172157408b/c15ab301-b5ed-42d5-a62f-bf6a25483a90-master.m3u8https://video.igem.org/videos/embed/bU5UEJrsveJ6XiuSJQFJhK18000162023-11-11T08:43:11.595ZYES2023 Judging SessionsNOhttps://video.igem.org/w/1UMxiB5NH96sHTgXu5B1Sfhttps://video.igem.org/lazy-static/thumbnails/a220e037-c01e-4b9c-a318-2f724c257e1a.jpgUCSC: Judging Session (2023)[Wiki](https://2023.igem.wiki/ucsc)https://static.igem.org/peertube/streaming-playlists/hls/075ebdaa-c852-4e51-9b44-c2c2eec2b2da/0f02cdec-0c86-40f8-bcbd-7d96b121b6da-master.m3u8https://video.igem.org/videos/embed/1UMxiB5NH96sHTgXu5B1Sf18000382023-11-11T08:51:57.030ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4GB6xhep5brQ4FvMNPJJmzhttps://video.igem.org/lazy-static/thumbnails/b8e69b2a-4357-48c5-9c21-e7fa2a627923.jpgNTU-Singapore: Judging Session (2023)[Wiki](https://2023.igem.wiki/ntu-singapore)https://static.igem.org/peertube/streaming-playlists/hls/1df6cb8f-2f46-4f0c-929c-43d2af07a691/dc487970-df77-4ca9-bce2-03db9a3e0a64-master.m3u8https://video.igem.org/videos/embed/4GB6xhep5brQ4FvMNPJJmz18000232023-11-11T09:01:00.186ZYES2023 Judging SessionsNOhttps://video.igem.org/w/mtvamKjfeEfY1wFXBQtu9Yhttps://video.igem.org/lazy-static/thumbnails/eba93b89-9d11-4580-a8ac-185e6142477e.jpgQdai: Judging Session (2023)[Wiki](https://2023.igem.wiki/qdai)https://static.igem.org/peertube/streaming-playlists/hls/a5cdd388-a735-4c68-bed7-ee0d9cf6bb50/a7ea07ab-d659-4843-a939-61281ad817f4-master.m3u8https://video.igem.org/videos/embed/mtvamKjfeEfY1wFXBQtu9Y18000202023-11-11T09:26:07.582ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4cVR4gsGesP7ErtprCW6zBhttps://video.igem.org/lazy-static/thumbnails/3cd6851a-2a58-407f-b78c-f8fcc157cd0c.jpgGEC-Guangzhou: Judging Session (2023)[Wiki](https://2023.igem.wiki/gec-guangzhou)https://static.igem.org/peertube/streaming-playlists/hls/19f5c7f6-53b7-4e89-a692-3512cb4fd0e1/5671500e-35fc-49f8-ad5d-cbb3a105d503-master.m3u8https://video.igem.org/videos/embed/4cVR4gsGesP7ErtprCW6zB18000202023-11-11T09:44:42.915ZYES2023 Judging SessionsNOhttps://video.igem.org/w/kdpe9KTCfFu2Q81u9jn4xFhttps://video.igem.org/lazy-static/thumbnails/ec177249-6a93-4dca-a94c-1944f0a9048a.jpgSCU-BSE-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/scu-bse-china)https://static.igem.org/peertube/streaming-playlists/hls/9b98dfaf-3a6a-42c8-a008-462fd533b601/d54e32eb-85c9-432c-beae-bd8bb75f8828-master.m3u8https://video.igem.org/videos/embed/kdpe9KTCfFu2Q81u9jn4xF18000402023-11-11T10:10:21.806ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4pEXgfbwoDUqm1jBRrGujMhttps://video.igem.org/lazy-static/thumbnails/cc9c8776-f9a7-4557-b581-37bbc4296798.jpgHeidelberg: Judging Session (2023)[Wiki](https://2023.igem.wiki/heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/1b998738-ce2e-4ee6-86e8-e4df5f208461/58fc38c2-a2ba-479b-a273-5a017c560dab-master.m3u8https://video.igem.org/videos/embed/4pEXgfbwoDUqm1jBRrGujM18000992023-11-11T10:19:33.769ZYES2023 Judging SessionsNOhttps://video.igem.org/w/kqjYbqDVqTyRD5eMqCRGtehttps://video.igem.org/lazy-static/thumbnails/b1045d61-f0a8-43f0-9fb4-5aceb3b900b2.jpgIISER-Mohali: Plaza Presentation (2023)IISER-Mohali: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/9d432cc2-a2b0-4e12-8091-a8d489ad2e73/05364970-3674-4c2b-9b32-2204eb39eab3-master.m3u8https://video.igem.org/videos/embed/kqjYbqDVqTyRD5eMqCRGte900082023-11-11T10:27:08.225ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/g14bwzN2PMWpPur5p57SHrhttps://video.igem.org/lazy-static/thumbnails/248f5dd5-af5a-44c7-b6ef-b85fe49ce808.jpgBostonU-HW: Judging Session (2023)[Wiki](https://2023.igem.wiki/bostonu-hw)https://static.igem.org/peertube/streaming-playlists/hls/797b0a62-ebfc-4c9d-ac70-f135a530da7b/e67c182e-5c20-45e7-9f50-28429602b550-master.m3u8https://video.igem.org/videos/embed/g14bwzN2PMWpPur5p57SHr18000182023-11-11T10:36:00.345ZYES2023 Judging SessionsNOhttps://video.igem.org/w/bwubv5nxQcX7Fty4iCv84Dhttps://video.igem.org/lazy-static/thumbnails/61d7fe6d-aa5c-4a27-8783-63104ae61ed1.jpgNCSU: Judging Session (2023)[Wiki](https://2023.igem.wiki/ncsu)https://static.igem.org/peertube/streaming-playlists/hls/553d111f-eab3-4ff5-b677-2fda6bfe4cf7/5c1ed758-6293-44f1-95a6-70ead246b6e0-master.m3u8https://video.igem.org/videos/embed/bwubv5nxQcX7Fty4iCv84D18000162023-11-11T10:45:50.077ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uXxFFCZR23RggS2ex7bKfohttps://video.igem.org/lazy-static/thumbnails/20869d03-3639-4d86-94c6-df0e525d7909.jpgJCVI-UCSD: Judging Session (2023)[Wiki](https://2023.igem.wiki/jcvi-ucsd)https://static.igem.org/peertube/streaming-playlists/hls/ea8150df-757d-4a27-9435-780a174e825e/86524e9d-ab10-4695-8d8b-1ea9134e5c2e-master.m3u8https://video.igem.org/videos/embed/uXxFFCZR23RggS2ex7bKfo18000272023-11-11T11:12:08.598ZYES2023 Judging SessionsNOhttps://video.igem.org/w/c33MjnB1rVMmP1JTF1UKdrhttps://video.igem.org/lazy-static/thumbnails/e89b158e-1a2b-4b32-b633-51f18b819298.jpgConcordia-Montreal: Judging Session (2023)[Wiki](https://2023.igem.wiki/concordia-montreal)https://static.igem.org/peertube/streaming-playlists/hls/595dba12-ef70-47c2-b84f-36f77020791d/313d0480-9279-40bb-af3b-04a68b16df4c-master.m3u8https://video.igem.org/videos/embed/c33MjnB1rVMmP1JTF1UKdr18000282023-11-11T11:03:26.048ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7hE8zE8MHq9aoEiVfZBBb3https://video.igem.org/lazy-static/thumbnails/6e64b873-c663-4982-a1b6-de81e445876e.jpgZJFH-Nanjing: Judging Session (2023)[Wiki](https://2023.igem.wiki/zjfh-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/32ea3b2d-02de-4d96-97b6-2261ffadfcba/b93493e9-7502-4682-8e68-1be755c5b62b-master.m3u8https://video.igem.org/videos/embed/7hE8zE8MHq9aoEiVfZBBb318000342023-11-11T11:21:04.105ZYES2023 Judging SessionsNOhttps://video.igem.org/w/bHq28Jop9He5y579KBxP64https://video.igem.org/lazy-static/thumbnails/562ac823-dc2b-4b88-bfdd-9ca0a61b4824.jpgFSU: Judging Session (2023)[Wiki](https://2023.igem.wiki/fsu)https://static.igem.org/peertube/streaming-playlists/hls/56c3af09-63dd-4a12-9936-c52135f83da9/ce1456a3-b449-4799-ad38-aba51491e228-master.m3u8https://video.igem.org/videos/embed/bHq28Jop9He5y579KBxP6418000622023-11-11T11:30:45.618ZYES2023 Judging SessionsNOhttps://video.igem.org/w/wR8PTSpuvRJzgNtNKvpgP4https://video.igem.org/lazy-static/thumbnails/2f12bc82-10a0-4f05-9369-d99936eafb64.jpgSCIE-PearlDelta: Judging Session (2023)[Wiki](https://2023.igem.wiki/scie-pearldelta)https://static.igem.org/peertube/streaming-playlists/hls/f9ce6d65-5c74-41b6-ac3c-1c2ab04e390d/67239341-615e-4d4b-bd66-12f10264ed5a-master.m3u8https://video.igem.org/videos/embed/wR8PTSpuvRJzgNtNKvpgP418000302023-11-11T12:29:13.087ZYES2023 Judging SessionsNOhttps://video.igem.org/w/g4qPaoaYX8jvPu64iBeyqahttps://video.igem.org/lazy-static/thumbnails/42b48160-7a10-431b-ac70-84871749627f.jpgStony-Brook: Judging Session (2023)[Wiki](https://2023.igem.wiki/stony-brook)https://static.igem.org/peertube/streaming-playlists/hls/79f39a54-2c96-4eeb-b48f-77fd53f21411/f6a3439b-f44c-41f1-a451-61b0e0303d4c-master.m3u8https://video.igem.org/videos/embed/g4qPaoaYX8jvPu64iBeyqa18000322023-11-11T12:38:03.203ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7We7gMxMFSs46Qan4k5dMvhttps://video.igem.org/lazy-static/thumbnails/2c2b7b5a-182a-473e-a6e4-1e0e668f1f90.jpgUSAFA: Judging Session (2023)[Wiki](https://2023.igem.wiki/usafa)https://static.igem.org/peertube/streaming-playlists/hls/382912df-39c8-4ac2-833c-4cd1c2e1f96f/e67b5176-a003-4c1b-ae5d-d96874d9e191-master.m3u8https://video.igem.org/videos/embed/7We7gMxMFSs46Qan4k5dMv18000432023-11-11T13:20:40.045ZYES2023 Judging SessionsNOhttps://video.igem.org/w/71YXZbMnRAM1jKVRkL4J8hhttps://video.igem.org/lazy-static/thumbnails/814cf19d-6238-4a47-8e88-0e91689e3ac6.jpgSubCat-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/subcat-china)https://static.igem.org/peertube/streaming-playlists/hls/30b9f024-941a-4bc6-aceb-faf90c699766/624dd5d2-d5de-475b-8b1b-1d54ac9c5b48-master.m3u8https://video.igem.org/videos/embed/71YXZbMnRAM1jKVRkL4J8h18000382023-11-11T13:30:29.108ZYES2023 Judging SessionsNOhttps://video.igem.org/w/oVbBHnQaEUmbL9TZLUFvSvhttps://video.igem.org/lazy-static/thumbnails/de252edb-480a-47cb-a3bc-7edd7802bed8.jpgUOregon: Judging Session (2023)[Wiki](https://2023.igem.wiki/uoregon)https://static.igem.org/peertube/streaming-playlists/hls/b9960334-4f31-429e-9878-24d8fee4471d/266855bd-0744-4a80-8ced-4e96ffcbf508-master.m3u8https://video.igem.org/videos/embed/oVbBHnQaEUmbL9TZLUFvSv18000202023-11-11T13:41:42.332ZYES2023 Judging SessionsNOhttps://video.igem.org/w/aTEUSGxrt9iCU2vzL7PuPghttps://video.igem.org/lazy-static/thumbnails/0c9a6ab3-27be-41de-95de-0f2ca7a2e2d9.jpgOKstate: Judging Session (2023)[Wiki](https://2023.igem.wiki/okstate)https://static.igem.org/peertube/streaming-playlists/hls/5019290c-a976-4f70-aaf0-f6f4898f2d9d/bb140c7a-5aa7-4bb4-ba4d-3267df523ffd-master.m3u8https://video.igem.org/videos/embed/aTEUSGxrt9iCU2vzL7PuPg18000262023-11-11T13:51:00.566ZYES2023 Judging SessionsNOhttps://video.igem.org/w/rXkCff5erH13s3NjZmc1Jxhttps://video.igem.org/lazy-static/thumbnails/313865b1-f09f-4b52-bd2a-bcdbc1708317.jpgUSP-Brazil: Judging Session (2023)[Wiki](https://2023.igem.wiki/usp-brazil)https://static.igem.org/peertube/streaming-playlists/hls/d22e77d7-ed70-4554-a677-c375b306f0bb/97704cb2-17b9-4d6d-b3fa-9db3d5d06231-master.m3u8https://video.igem.org/videos/embed/rXkCff5erH13s3NjZmc1Jx18000612023-11-11T14:00:58.229ZYES2023 Judging SessionsNOhttps://video.igem.org/w/5U9n3pqc4VM8P11DMVAWuPhttps://video.igem.org/lazy-static/thumbnails/d026184a-0ccc-4c59-892a-e404d5921e4a.jpgMIT-MAHE: Judging Session (2023)[Wiki](https://2023.igem.wiki/mit-mahe)https://static.igem.org/peertube/streaming-playlists/hls/27ac6269-e65f-4ee6-8641-6ef3b544a81f/cdd57a70-194e-4a09-abb6-71c0d3f8f165-master.m3u8https://video.igem.org/videos/embed/5U9n3pqc4VM8P11DMVAWuP180001132023-11-11T14:10:40.859ZYES2023 Judging SessionsNOhttps://video.igem.org/w/98CEmUV7s73y1ZLUhCPzEmhttps://video.igem.org/lazy-static/thumbnails/21f2418e-49a0-457d-a661-f4ac66743877.jpgTSBC-SZ: Plaza Presentation (2023)TSBC-SZ: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/41d9e8b7-bc83-45f7-879d-5cdc344db3ec/4a1573bb-0e20-4e74-9a03-3fae1becaf5e-master.m3u8https://video.igem.org/videos/embed/98CEmUV7s73y1ZLUhCPzEm900022023-11-11T14:26:23.264ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/k8y9Tr9NGjpSNbMwwpbutjhttps://video.igem.org/lazy-static/thumbnails/0fa1be55-0eff-4918-98d3-6b9aacc3fd7e.jpgJiangsu-United: Plaza Presentation (2023)Jiangsu-United: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/9aeba7f3-4867-4bc7-8fe9-958e13a6fae0/cdbfab7d-4ca6-46c6-b488-ed144ce5f618-master.m3u8https://video.igem.org/videos/embed/k8y9Tr9NGjpSNbMwwpbutj900042023-11-11T14:52:12.525ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/4ormMKXaMxQDoKVGwk2nvQhttps://video.igem.org/lazy-static/thumbnails/e90182bd-a992-4df1-8cc3-81fd70d61aed.jpgStartup Showcase Winners AnnouncementYou don't want to miss this! Bid a fond farewell to an inspiring day of innovation and recognize the exceptional achievements of the participants. Be part of the moment when we unveil special prizes and express gratitude for the remarkable contributions that have enriched our iGEM community.https://static.igem.org/peertube/streaming-playlists/hls/1b6d6817-6f27-4af3-afd5-acf5b85b074e/73f4770d-5ea0-424f-bea9-413fe4763d2f-master.m3u8https://video.igem.org/videos/embed/4ormMKXaMxQDoKVGwk2nvQ9000532023-11-05T08:50:14.800ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/bdaYx4o9veaWgLWcZBzhhohttps://video.igem.org/lazy-static/thumbnails/ce5f777f-66e9-4751-9b80-80f862fa8826.jpgHangzhou-BioX: Judging Session (2023)[Wiki](https://2023.igem.wiki/hangzhou-biox)https://static.igem.org/peertube/streaming-playlists/hls/52ae7580-e24b-49f3-a42d-992b162e0cae/6d1cc57d-780d-468c-b4f6-31528d836aa5-master.m3u8https://video.igem.org/videos/embed/bdaYx4o9veaWgLWcZBzhho18000202023-11-10T08:15:28.437ZYES2023 Judging SessionsNOhttps://video.igem.org/w/gHQsFXfYWJzp55pMxJ7S7yhttps://video.igem.org/lazy-static/thumbnails/270ac328-e340-46ff-a7f8-ba6c655a052c.jpgH14Z-AP: Judging Session (2023)[Wiki](https://2023.igem.wiki/h14z-ap)https://static.igem.org/peertube/streaming-playlists/hls/7f507068-d952-4beb-90b5-61218e1b0d34/00324beb-4105-40f2-8b9a-6a1f68aeceba-master.m3u8https://video.igem.org/videos/embed/gHQsFXfYWJzp55pMxJ7S7y1800062023-11-10T08:32:34.401ZYES2023 Judging SessionsNOhttps://video.igem.org/w/koAhtixFgijYy7ELYx5zvwhttps://video.igem.org/lazy-static/thumbnails/0203a2e6-4c91-4a18-abcc-7eba92cca1a3.jpgIIT-Madras: Judging Session (2023)[Wiki](https://2023.igem.wiki/iit-madras)https://static.igem.org/peertube/streaming-playlists/hls/9d05202f-f971-4dcf-bab2-a26b023e98e4/add64cb5-9dba-4e84-af1c-b70c2ab9e6f3-master.m3u8https://video.igem.org/videos/embed/koAhtixFgijYy7ELYx5zvw18000232023-11-10T08:50:23.181ZYES2023 Judging SessionsNOhttps://video.igem.org/w/uGWFjV2QbLixiYVciZKPTPhttps://video.igem.org/lazy-static/thumbnails/57ccc171-dd6d-4deb-b113-f71adc77539b.jpgTsinghua-TFL: Judging Session (2023)[Wiki](https://2023.igem.wiki/tsinghua-tfl)https://static.igem.org/peertube/streaming-playlists/hls/e877546e-e0bb-4371-ab7a-5b1de06ad981/ea4ea2c5-84ca-4032-8d20-da2382f5d68c-master.m3u8https://video.igem.org/videos/embed/uGWFjV2QbLixiYVciZKPTP18000262023-11-10T09:23:23.348ZYES2023 Judging SessionsNOhttps://video.igem.org/w/oiSL4bf2YhrgATWtG8U7Cdhttps://video.igem.org/lazy-static/thumbnails/940e60f3-1921-4613-82b3-66400b9d1871.jpgTU-Dresden: Judging Session (2023)[Wiki](https://2023.igem.wiki/tu-dresden)https://static.igem.org/peertube/streaming-playlists/hls/b4a7f9ef-009a-43a6-ae95-c32ec0374e5c/e8a60774-7198-423e-8913-22808ac64c0c-master.m3u8https://video.igem.org/videos/embed/oiSL4bf2YhrgATWtG8U7Cd18000552023-11-10T09:40:23.611ZYES2023 Judging SessionsNOhttps://video.igem.org/w/2ExZCAneddJA88As3bcUkNhttps://video.igem.org/lazy-static/thumbnails/53232672-7c8b-44c3-9fd6-c62854be8767.jpgJilin-China: Judging Session (2023)[Wiki](https://2023.igem.wiki/jilin-china)https://static.igem.org/peertube/streaming-playlists/hls/0d7b1e63-0d22-4d2e-b197-dd23ebf539e4/b673a9e5-c83c-4d23-b0b3-919b4e11ad9f-master.m3u8https://video.igem.org/videos/embed/2ExZCAneddJA88As3bcUkN18000552023-11-10T09:57:23.640ZYES2023 Judging SessionsNOhttps://video.igem.org/w/eorFw1tJwLE4DwCWNNhFvNhttps://video.igem.org/lazy-static/thumbnails/5b5a7362-cb78-49da-9b60-3bb308d944b2.jpgMcGill: Judging Session (2023)[Wiki](https://2023.igem.wiki/mcgill)https://static.igem.org/peertube/streaming-playlists/hls/6c68fe01-1b56-4694-a107-f930c65d4cdc/552eb2d4-4519-45f9-a215-40fabc7cc999-master.m3u8https://video.igem.org/videos/embed/eorFw1tJwLE4DwCWNNhFvN1800013732023-11-10T10:14:43.558ZYES2023 Judging SessionsNOhttps://video.igem.org/w/4nL3caq4Xv9XhCqQcHEA8ehttps://video.igem.org/lazy-static/thumbnails/699797ea-f216-4de2-a5e7-c8c89283fb11.jpgCCU-Taiwan: Judging Session (2023)[Wiki](https://2023.igem.wiki/ccu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/1b552ca6-1283-48a3-98db-06cec82cbfcb/e371cb0a-8a29-45c6-aaa7-8584e3c88fb1-master.m3u8https://video.igem.org/videos/embed/4nL3caq4Xv9XhCqQcHEA8e18000272023-11-10T10:30:51.470ZYES2023 Judging SessionsNOhttps://video.igem.org/w/sp9GU1STyZscqtmMbEXbKZhttps://video.igem.org/lazy-static/thumbnails/422da3d2-7d29-4403-a64d-8f891f8c5fc7.jpgToronto: Judging Session (2023)[Wiki](https://2023.igem.wiki/toronto)https://static.igem.org/peertube/streaming-playlists/hls/d5c9139b-5589-4960-ad9a-ee786206f6d7/0f3d84ae-0f88-4304-900d-5879e122044d-master.m3u8https://video.igem.org/videos/embed/sp9GU1STyZscqtmMbEXbKZ18000382023-11-10T10:48:59.935ZYES2023 Judging SessionsNOhttps://video.igem.org/w/thB6DmqzzrFLfTeanziC3Chttps://video.igem.org/lazy-static/thumbnails/06ffe95a-a85b-41fa-834e-85287e046cfa.jpgAthens: Judging Session (2023)[Wiki](https://2023.igem.wiki/athens)https://static.igem.org/peertube/streaming-playlists/hls/dcf8460c-5626-4f32-97f6-b76d7d1ca340/fc64c0a9-e665-4394-acf9-23d187e89605-master.m3u8https://video.igem.org/videos/embed/thB6DmqzzrFLfTeanziC3C18000302023-11-10T11:05:39.155ZYES2023 Judging SessionsNOhttps://video.igem.org/w/p4yw1RG9DTunyAVAuvbFxnhttps://video.igem.org/lazy-static/thumbnails/08f0767b-f3d3-4a1d-bf45-05c602518ab7.jpgVirginia: Judging Session (2023)[Wiki](https://2023.igem.wiki/virginia)https://static.igem.org/peertube/streaming-playlists/hls/bac175c9-af6b-4409-8dac-6d63082a6c77/a29cbdd1-f91e-4313-b139-e6ef4e3ce7da-master.m3u8https://video.igem.org/videos/embed/p4yw1RG9DTunyAVAuvbFxn18000372023-11-10T11:21:45.589ZYES2023 Judging SessionsNOhttps://video.igem.org/w/7nh2CBUHD1HBJhJL1QmD8Hhttps://video.igem.org/lazy-static/thumbnails/8cab9939-cb31-403f-91cf-5b3c804df234.jpgAyllugene (2023) - Team PresentationAyllugene (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/338f542d-29c8-4125-80af-c0fe8934ba13/810557b5-6b78-42b6-a61a-ec30343d0ed0-master.m3u8https://video.igem.org/videos/embed/7nh2CBUHD1HBJhJL1QmD8H1201052023-11-14T19:18:10.219ZYESiGEM Design LeagueNOhttps://video.igem.org/w/9zNf2EEFoQBGNMtFr4Sawuhttps://video.igem.org/lazy-static/thumbnails/fe5cae41-8094-4806-850d-ba38645b0c04.jpgBiostyvia (2023) - Team PresentationBiostyvia (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/458126b8-d424-4f44-8e2a-43a989e33d0c/62fb5d79-7460-4808-8880-5b2795ac2f7c-master.m3u8https://video.igem.org/videos/embed/9zNf2EEFoQBGNMtFr4Sawu806062023-11-14T20:24:06.159ZYESiGEM Design LeagueNOhttps://video.igem.org/w/36xgxCEF5VwUBp7phcFpJ6https://video.igem.org/lazy-static/thumbnails/b3f4ebe1-95d0-4449-9988-7f5f34742566.jpg BioTec-CCM (2023) - Team Presentation BioTec-CCM (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/10f84409-c951-47cb-ac02-52152a74414d/275ead2a-e1a3-4a5d-820f-e85b14d5d2a4-master.m3u8https://video.igem.org/videos/embed/36xgxCEF5VwUBp7phcFpJ69760282023-11-14T21:03:45.349ZYESiGEM Design LeagueNOhttps://video.igem.org/w/sefYqGdRrdbxQ2ZU2R32eQhttps://video.igem.org/lazy-static/thumbnails/9a3b703b-f3e1-4f48-80c7-87826b129bfc.jpgBioWolfs (2023) - Team PresentationBioWolfs (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/d4678063-b0d6-44da-b8e2-ca3d3f97a2c6/bd3a6b9e-15f4-4222-a8ac-0dbe9601f162-master.m3u8https://video.igem.org/videos/embed/sefYqGdRrdbxQ2ZU2R32eQ955062023-11-14T21:07:05.965ZYESiGEM Design LeagueNOhttps://video.igem.org/w/254JyN5pnUCyJ3BRhvnWkFhttps://video.igem.org/lazy-static/thumbnails/0a575fc4-295c-4292-8bf1-441533a2b54a.jpgCNPEM.Brazil (2023) - Team PresentationCNPEM.Brazil (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/08aa6a32-4185-47d7-a4c5-5f2afc096be5/2f42ca20-095f-4ad6-84e7-6e06f6b39c51-master.m3u8https://video.igem.org/videos/embed/254JyN5pnUCyJ3BRhvnWkF11870322023-11-14T21:11:48.840ZYESiGEM Design LeagueNOhttps://video.igem.org/w/wPKKCDuYcGB7PzfToVHMfkhttps://video.igem.org/lazy-static/thumbnails/46a6f80f-3777-46a5-a037-c9a82ff12394.jpgFCB UANL (2023) - Team PresentationFCB UANL (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/f99d148d-9ee0-4bc8-8979-996841809bcb/5602d457-225c-4921-ae25-966a4f0acc5e-master.m3u8https://video.igem.org/videos/embed/wPKKCDuYcGB7PzfToVHMfk10090122023-11-14T21:32:26.457ZYESiGEM Design LeagueNOhttps://video.igem.org/w/tUmu81UjTF5T8UErei1Ce4https://video.igem.org/lazy-static/thumbnails/0948d0a4-e791-4c58-bb02-a67cdb6fac9e.jpgGenesys (2023) - Team PresentationGenesys (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/e1f60b49-b4e4-4cce-9cc1-7bb1b9174475/940f8574-d4e9-4cdd-997c-d0f3c838f760-master.m3u8https://video.igem.org/videos/embed/tUmu81UjTF5T8UErei1Ce48450102023-11-14T22:21:03.016ZYESiGEM Design LeagueNOhttps://video.igem.org/w/qwP7pBa6u7K9EdtXVRecschttps://video.igem.org/lazy-static/thumbnails/f22c4db1-ee3b-470f-915b-8ea6ba31fa26.jpgHS2 UANL (2023) - Team PresentationHS2 UANL (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/c6a8ac7d-dfea-4ad7-917c-e4265933d7f3/1b57c605-41d7-4295-b91d-c82d4d55a30b-master.m3u8https://video.igem.org/videos/embed/qwP7pBa6u7K9EdtXVRecsc940092023-11-14T22:23:12.977ZYESiGEM Design LeagueNOhttps://video.igem.org/w/rG4T8zp3AcwrK1myqA6QJdhttps://video.igem.org/lazy-static/thumbnails/792bb705-0ece-4c90-b05b-e40092feddf8.jpgiGEM Biomakers (2023) - Team PresentationiGEM Biomakers (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/d00c9c01-79f0-4980-8045-fedee7a3a238/c2c7c944-6849-4a92-88f1-527f5523db51-master.m3u8https://video.igem.org/videos/embed/rG4T8zp3AcwrK1myqA6QJd12070102023-11-14T22:39:33.058ZYESiGEM Design LeagueNOhttps://video.igem.org/w/7prtVVT13pcYANhnBprqb8https://video.igem.org/lazy-static/thumbnails/bdb51c44-422f-46c6-89f4-001e20562839.jpgiGEM Biotech EC (2023) - Team PresentationiGEM Biotech EC (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/33dca469-52ec-4473-bdf4-2bdd6fa34223/17715313-f2aa-4192-bd7f-48c476e4c796-master.m3u8https://video.igem.org/videos/embed/7prtVVT13pcYANhnBprqb812000262023-11-14T22:42:24.952ZYESiGEM Design LeagueNOhttps://video.igem.org/w/nJNVWgVhboVa3Fr9vVWx6whttps://video.igem.org/lazy-static/thumbnails/8987bf3d-22d6-42b6-8726-be14eb0455e1.jpgIGEM CSB (2023) - Team PresentationIGEM CSB (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/b00a1261-265a-4327-b16a-3d51115fc3fc/395050a8-dba8-48e4-a64e-ca7cdd174146-master.m3u8https://video.igem.org/videos/embed/nJNVWgVhboVa3Fr9vVWx6w11990142023-11-15T00:32:05.577ZYESiGEM Design LeagueNOhttps://video.igem.org/w/eMevHZtNZBpHiFDL1BZr5bhttps://video.igem.org/lazy-static/thumbnails/494a084d-93c8-4711-aa58-da3d72858706.jpgEco Soil (2023) - Team PresentationEco Soil (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/6f97997e-ee1b-4c97-b527-20d2f8482a0e/ee0e3e95-5715-4a0e-bd8f-c543d2aa81a8-master.m3u8https://video.igem.org/videos/embed/eMevHZtNZBpHiFDL1BZr5b9680102023-11-15T01:44:58.383ZYESiGEM Design LeagueNOhttps://video.igem.org/w/4e4hrXGv1mCbSZ2opxyNpYhttps://video.igem.org/lazy-static/thumbnails/09abeed6-9def-4df7-8cfc-9ca37e0bb74b.jpgEvolutech PA (2023) - Team PresentationEvolutech PA (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/1a1e1bcb-14d3-42db-9901-d7b970cb9636/ead47285-f611-4c12-b0b7-eb18aebdacfa-master.m3u8https://video.igem.org/videos/embed/4e4hrXGv1mCbSZ2opxyNpY803072023-11-15T02:09:01.639ZYESiGEM Design LeagueNOhttps://video.igem.org/w/jZpyqvwFifrhAzC6T8ML38https://video.igem.org/lazy-static/thumbnails/aa71a2ed-275a-4e77-a9f9-2d02291260c3.jpgTec QRO (2023) - Team PresentationTec QRO (2023) - Team Presentationhttps://static.igem.org/peertube/streaming-playlists/hls/99c868d6-a953-4102-8704-9db920f9bc43/3446b037-0081-450b-a007-6369d1aebe21-master.m3u8https://video.igem.org/videos/embed/jZpyqvwFifrhAzC6T8ML38838082023-11-15T02:14:06.066ZYESiGEM Design 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See 2014.igem.org for details. 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Thank you, iGEM teams! Join us for 2015! 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Join us on the SciComm Made Easy Podcast as we explore the world of science communication with the brilliant Dr. Sanket Bapat. From decoding the complexities of bioinformatics to navigating the realm of YouTube education, Dr. Bapat shares insights that will ignite your curiosity. Tune in to unravel the mysteries of science communication and gain invaluable tips to demystify intricate subjects. Don't miss this enlightening conversation! 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Utilizing reporter genes and fluorescent proteins in experimental design.The second session of Biota Talks was held on December 8, 2023 with Yassin S. Chafik. He is currently pursuing a bachelor's degree at the University of Salamanca in biology. Over the past two years, his profound and unwavering commitment and unconditional love to iGEM and Synthetic Biology has grown, sparking a fervent desire to turn them into his career. Commencing his journey with the Navarra_BG's iGEM team in 2022, Yassin has developed a strong affinity for Biosecurity and Genetic Engineering aspects. The discussion covered the utilization of reporter genes and fluorescent proteins in experimental design.https://static.igem.org/peertube/streaming-playlists/hls/e80d8f75-6032-4e4e-960b-6105e0658e5d/66197f5d-ff84-44a4-bf5a-7f6996d00b9e-master.m3u8https://video.igem.org/videos/embed/uDZ3ULk1ZF4tn7XVGePgCR3038092023-12-08T19:40:46.309ZYESiGEM CommunityNOhttps://video.igem.org/w/fqmnDNquhfjx3855tVDFyLhttps://video.igem.org/lazy-static/thumbnails/387b2ec1-e754-4837-bcdb-bf49db1bdc19.jpgClimate Crisis VillageDuring the last century, the accelerated rising of Earth's average air temperature due to the combustion of fossil fuels has had disastrous effects on the global climate. Can synthetic biology be applied to develop carbon fixation technologies which remove greenhouse gasses like CO₂ and CFCs from the atmosphere? Can we improve the existing energy sources, or industrial and agricultural processes to reduce the emission of pollutants like methane or nitrous oxide in the first place? What other approaches to addressing the climate crisis are possible with synthetic biology?https://static.igem.org/peertube/streaming-playlists/hls/74c658e3-1eee-411a-8f5d-c8679d4ad5e0/6ba89db2-2d95-45bc-b155-4c45d1b7a6fc-master.m3u8https://video.igem.org/videos/embed/fqmnDNquhfjx3855tVDFyL11103582023-12-08T21:52:14.412ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/gm53QN6CBvsUBRNPCAjjuahttps://video.igem.org/lazy-static/thumbnails/b34fc00c-a291-40c5-a0f4-36defb0e53b0.jpgFinal Day Show - Act V: iGEM is the Heart of Synthetic Biology (iGEM 2023 Grand Jamboree)Final Day Show - Act V: iGEM is the Heart of Synthetic Biology (iGEM 2023 Grand Jamboree)https://static.igem.org/peertube/streaming-playlists/hls/7c467359-06df-43ba-929a-e0e2876ac819/296c18e3-bd5f-485f-825a-fabf74f4cf93-master.m3u8https://video.igem.org/videos/embed/gm53QN6CBvsUBRNPCAjjua247702202023-12-08T23:50:09.302ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/ga1uwEerb2SjBm7JMV34Crhttps://video.igem.org/lazy-static/thumbnails/b29b3be4-4a3b-463f-ae81-0211958bbad5.jpgFood & Nutrition VillageEverybody needs to eat. But with over 7 billion people on the planet, the problem of producing enough food is complex and multi-faceted. Can biotechnology be responsibly used to reduce food waste, or produce food or nutritional molecules without causing widespread shortages of either, and without harming the environment that future generations will inherit?https://static.igem.org/peertube/streaming-playlists/hls/7abb13b3-7508-4591-8384-4c822ae354ed/a12daf0a-4653-4149-8fd5-e2fb9345970d-master.m3u8https://video.igem.org/videos/embed/ga1uwEerb2SjBm7JMV34Cr10752912023-12-09T17:30:47.953ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/a6tWs1Ng1ArVR7uFGq37KEhttps://video.igem.org/lazy-static/thumbnails/697fd930-fec6-41fd-87f8-d37059f96ce6.jpgEnvironment VillageThe quality of land, water, and air limits the happiness of Earth's inhabitants. Can biotechnology be used to help clean the air, provide fresh drinking water, or prevent the accumulation of antibiotics and antibiotic resistant microorganisms in the environment?https://static.igem.org/peertube/streaming-playlists/hls/49a62f46-5812-444c-899b-618169f13d4c/08d5de00-ca92-4281-979c-4916e1bca490-master.m3u8https://video.igem.org/videos/embed/a6tWs1Ng1ArVR7uFGq37KE1200922023-12-09T17:35:39.496ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/42wN7gSv6iJLTirHzDDHzphttps://video.igem.org/lazy-static/thumbnails/b21a2103-c34c-41a7-b363-189f26cbec56.jpgConservation VillageEnvironmental destruction, monocultures in agriculture, disease, and other human activities have affected the health of plants, animals, and their ecosystems for a long time. How can synthetic biology be applied to the protection of endangered species, or the reversal of anthropogenic extinctions?https://static.igem.org/peertube/streaming-playlists/hls/18822348-673a-454b-a7fa-b469becb2ccd/20347940-df11-4cec-a6e2-99e8022cd6f5-master.m3u8https://video.igem.org/videos/embed/42wN7gSv6iJLTirHzDDHzp11501782023-12-09T17:40:24.318ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/5qtPz1udhJSKiEo7wxsdCVhttps://video.igem.org/lazy-static/thumbnails/571bba17-94da-4053-b009-67798016259e.jpgBioremediation VillageHuman dependence on petroleum products, unsafe agricultural practices, and rapid industrialization have led to the accumulation of toxic pollutants that harm the environment and threaten public health. Can your team use synthetic biology to harness the power of microorganisms or plants to detoxify contaminants in the air, water, soil, flue gasses, and industrial effluents?https://static.igem.org/peertube/streaming-playlists/hls/23cf8cc6-4e64-4a0b-a4e9-9a6c97aad44d/f33ebec1-43fe-4c82-8ca4-442d7ad9f396-master.m3u8https://video.igem.org/videos/embed/5qtPz1udhJSKiEo7wxsdCV11703262023-12-09T17:45:04.796ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/oPR1r7XZ4YmxWmXZiFYmFXhttps://video.igem.org/lazy-static/thumbnails/64ba67a8-f09c-4857-897b-fc204ee83095.jpgAgriculture VillageIn the coming decades, agriculture must both feed the growing global population and implement sustainable practices to ensure a healthy environment. This challenge has become more difficult as the increased frequency and intensity of extreme weather events has led to lower crop yields, reduced soil fertility, and more pests and diseases. How will your team apply synthetic biology to revolutionize agriculture and improve the quality and quantity of food?https://static.igem.org/peertube/streaming-playlists/hls/b8d735aa-9cc8-4e0b-8166-4f34e2d0476d/ca7f9330-f497-428b-99de-838c1a26a69e-master.m3u8https://video.igem.org/videos/embed/oPR1r7XZ4YmxWmXZiFYmFX11803152023-12-09T17:49:44.993ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/q7JLpoWE1YwhdhppdD62YJhttps://video.igem.org/lazy-static/thumbnails/aaf7a8aa-d3ef-41cf-8a13-9f2be5f8129f.jpgSoftware & AI VillageIf you are going to design a new life form, chances are you'll need a computer to design the smallest genetic circuits and deal with genome-scale complexity. Artificial intelligence and machine learning promise to bring a new level of computational power to synthetic biology. The software track is for computer scientists and developers to nurture their knowledge of biology, and for computational biologists, bioinformaticians and biologists to enhance their aptitude for building software. What will you build?https://static.igem.org/peertube/streaming-playlists/hls/c34c254b-6a17-4712-910a-70045be3fcd6/ce61dc85-1ba8-473c-a2d3-6ef04301b896-master.m3u8https://video.igem.org/videos/embed/q7JLpoWE1YwhdhppdD62YJ11702332023-12-09T17:53:45.458ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/1asRSsu1oc5z7pZadS7FzPhttps://video.igem.org/lazy-static/thumbnails/d1e196b3-4e83-41d7-aeea-566e437e4246.jpgTherapeutics VillageMany health and medical problems can best be addressed with new and novel therapies. What can synthetic biology do to improve techniques, technology and access to novel therapies?https://static.igem.org/peertube/streaming-playlists/hls/01523f33-f02a-4d6c-8136-eef3a6730b75/36070208-5b20-4f6a-ac66-c561002815cd-master.m3u8https://video.igem.org/videos/embed/1asRSsu1oc5z7pZadS7FzP12103892023-12-09T18:11:02.344ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/1Ko6ekBjNAJ1LcCpYqAkzFhttps://video.igem.org/lazy-static/thumbnails/4c020b1c-1503-44f4-b39f-9eae917b46c8.jpgBiomanufacturing VillageWhat can biology be programmed to manufacture? Biological systems can be used to make products under conditions that were previously impossible. Many enzymes can achieve reaction conditions in a tube that would otherwise require high temperatures, pressures or expensive substrates to reproduce using chemical engineering methods. Could we use synthetic biology to manufacture useful products, perform micro-scale production of high-value molecules like therapeutics, or produce engineered tissues such as new skin or organs?https://static.igem.org/peertube/streaming-playlists/hls/060e987d-4f8c-439f-afea-c13e1fa1ebdd/9a2cdb76-9b52-4516-a1c3-f1ef8b947c55-master.m3u8https://video.igem.org/videos/embed/1Ko6ekBjNAJ1LcCpYqAkzF11802742023-12-09T18:06:39.620ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/crzvFy8vhY3McnWF44w3qnhttps://video.igem.org/lazy-static/thumbnails/ff7ac361-93cf-4ea4-a9d8-307a9a8d8a28.jpgDiagnostics VillageMany medical conditions can be successfully treated if only they are diagnosed at an early enough stage. Diagnostic technologies also play a key role in preventive healthcare, public health, and epidemiology. Can your team come up with faster, cheaper and better diagnostics techniques to improve access to medical treatment worldwide?https://static.igem.org/peertube/streaming-playlists/hls/5ca6c598-ea2d-4b25-9fc0-32d1ad45ba4d/b39ddb7e-811a-4f38-897f-445c2c54630c-master.m3u8https://video.igem.org/videos/embed/crzvFy8vhY3McnWF44w3qn12403072023-12-09T18:15:34.358ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/e7f93HKADm5NXB1tBvbqqzhttps://video.igem.org/lazy-static/thumbnails/442cebdb-0bff-4929-b16d-34e7624f9559.jpgFoundational Advance VillageiGEM relies on a number of foundational technologies to function. We use BioBricks, standardization (RFCs), high-throughput quality control and many other processes to run the competition. The Foundational Advance track allows teams to come up with novel solutions to technical problems surrounding core synbio technologies. For example, the discovery and application of DNA recombination allowed us to assemble new genes. What are other types of basic tricks does nature use? Have you discovered and applied one that could revolutionize synthetic biology?https://static.igem.org/peertube/streaming-playlists/hls/6a25fa7f-7b01-4059-a9c0-de78cba1aff1/52f05145-7da7-4972-bad2-fc3001d8f98a-master.m3u8https://video.igem.org/videos/embed/e7f93HKADm5NXB1tBvbqqz12502652023-12-09T18:20:09.662ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/uAMcDfN8aR6Ufg9mkB8FFXhttps://video.igem.org/lazy-static/thumbnails/b55d0ac3-68d3-4666-8430-b81c383d2f30.jpgiGEM 2023 Startup Showcase Winning Pitch - MagGenixiGEM 2023 Startup Showcase Winning Pitch - MagGenixhttps://static.igem.org/peertube/streaming-playlists/hls/e79b06cf-342b-4772-9912-e639f6ee78b1/0749266f-7070-4671-94b7-a6d5d5325a04-master.m3u8https://video.igem.org/videos/embed/uAMcDfN8aR6Ufg9mkB8FFX30001122023-12-09T18:25:56.728ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/bWLCoiCCb1vuZghzB1r8Rwhttps://video.igem.org/lazy-static/thumbnails/0a009f37-7ff6-4513-8d39-12482d05f7e3.jpgUGM: Project Discovery Dashboard - Hackathon Pitch (2023) [English]Video of Hackathon UGM Indonesiahttps://static.igem.org/peertube/streaming-playlists/hls/58a10d80-8f79-4f5c-8bf3-ea00f421113c/22b94abf-a7bd-4792-8627-d7b71d0890c5-master.m3u8https://video.igem.org/videos/embed/bWLCoiCCb1vuZghzB1r8Rw86012023-12-10T05:11:46.500ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/tzyt8Vt4dNBHR58WfkAdo8https://video.igem.org/lazy-static/thumbnails/f26e0df9-211a-4d3c-bd57-12ab40707af8.jpgGreatBay-SCIE: Picture book read-along (2023) [English]This is the video reading our picture book for educational purposehttps://static.igem.org/peertube/streaming-playlists/hls/df564c19-ade8-490c-805a-20d8e2bb97f3/2ee6d6ca-c827-41d3-8f52-21f1d9498457-master.m3u8https://video.igem.org/videos/embed/tzyt8Vt4dNBHR58WfkAdo8174082023-12-11T01:52:51.415ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/uXjnVE23FsnEXUZVQSejAThttps://video.igem.org/lazy-static/thumbnails/60aae23a-2d93-4416-a055-37a870a3a514.jpgIISER-Pune-India: Landing (2023) [English]Video for the Landing Page of the Wiki.https://static.igem.org/peertube/streaming-playlists/hls/ea791d9d-9ce9-4c2a-b00b-d2173270ef57/ff70e378-065d-4d1d-b77d-100b746f07ef-master.m3u8https://video.igem.org/videos/embed/uXjnVE23FsnEXUZVQSejAT25015182023-12-13T05:01:21.234ZYESiGEM 2023 TeamsNOhttps://video.igem.org/w/ciC3HczNbJcFcoy5uFx65zhttps://video.igem.org/lazy-static/thumbnails/0fae7939-6ad7-4ace-b690-7258fd929721.jpg2023 iGEM Africa MeetupEvent organized by the 2023 iGEM Ambassadors for Africa.https://static.igem.org/peertube/streaming-playlists/hls/5b8a6249-aa33-465f-8114-ee3bb4325985/6c39672d-28bd-4dfd-8579-b6d12d922dbc-master.m3u8https://video.igem.org/videos/embed/ciC3HczNbJcFcoy5uFx65z3599082023-12-21T16:39:23.153ZYESiGEM CommunityNOhttps://video.igem.org/w/eReJNpyLCkvHZwEQ2m4x6Chttps://video.igem.org/lazy-static/thumbnails/aa7a88dc-924c-412f-8bbe-712ca801ff15.jpgSynthetic Biology in Space - How can Synthetic Biology Help Europe Explore SpaceSynthetic biology holds promise in advancing space exploration and overcome common challenges faced by space biology projects today. It can facilitate biomanufacturing, produce sustainable food, offer radiation protection, enable environmental monitoring, aid in terraforming, support biological research and generate biofuels. Moreover, synthetic biology can accelerate resource utilization, supports long-term habitation, and advances scientific understanding, making it a crucial asset for the future of space exploration. In this context, this talk will highlight some of the common challenges in space biology projects and show the exciting possibilities that synthetic biology can offers for the future of space exploration in Europe.https://static.igem.org/peertube/streaming-playlists/hls/7026b6af-4397-4812-9f34-bd1a18f140fa/8e73983f-b7a6-40b3-9c0a-6b669082bc72-master.m3u8https://video.igem.org/videos/embed/eReJNpyLCkvHZwEQ2m4x6C11780662024-01-11T17:59:00.794ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/pWxhRQcdFLi4hur52CeSwJhttps://video.igem.org/lazy-static/thumbnails/8b9d42e1-75a8-41d1-9c3d-9041a5175bd4.jpg[Podcast] SciComm Made Easy - S1E5: Starting From Scratch - Navigating Science Communication in i...Episode 5 of SciComm Made Easy Podcast is live! Join us on a journey of starting from scratch as we explore the world of iGEM science communication with our insightful guests, Sabrina and Emma. Despite being novices, they share their adventures in breaking down complex topics. Tune in for practical tips on making science communication easy, even when you're building from the ground up. Don't miss this enlightening conversation on simplifying the intricate world of synthetic biology!https://static.igem.org/peertube/streaming-playlists/hls/c1dfa2e6-1747-47e5-8003-8d54727e8766/01bf64cb-f6c4-4274-a51c-537de3938549-master.m3u8https://video.igem.org/videos/embed/pWxhRQcdFLi4hur52CeSwJ24570172024-01-22T14:24:57.358ZPodcastScience CommunicationYESiGEM CommunityNOhttps://video.igem.org/w/bKd4Rv2uYvxEFLAaeDCsLihttps://video.igem.org/lazy-static/thumbnails/6585f984-17bc-4564-8142-6fa162621802.jpgiGEM Grand Jamboree | 2023 Aftermovie | 20th Year of iGEMThe iGEM 2023 Grand Jamboree brought together over 4000 people to celebrate 20 years of iGEM, the heart of synthetic biology. This was the largest event to date, attended by synthetic biology researchers, industry reps, startup founders, investors, journalists, experts in governance and policy, and the general public, to glimpse the future of synthetic biology. 400 teams from 50 countries presented synthetic biology projects targeting humanity’s most pressing problems in 12 villages, Climate Crisis, Environment, Bioremediation, Biomanufacturing to name a few. Alongside iGEM Competition, the 2023 Grand Jamboree hosted the Bioinnovation Fair and the Startup Showcase with more than 50 synbio startups with 150 people attending, the Responsibility Conference with 150 representatives and the first iGEM BioHackathon with over 100 participants and 4 challenges. The 2024 Grand Jamboree, the World Expo of Synthetic Biology will return October 23-26, 2024, in the Paris Expo - Porte de Versailles. Registrations are now open at https://competition.igem.org/ . The 2023 Grand Jamboree was featured in the La Monde. https://www.lemonde.fr/sciences/article/2023/11/07/la-biologie-de-synthese-met-ses-jeunes-talents-en-competition_6198769_1650684.html Learn more about the 2023 Grand Jamboree: https://jamboree.igem.org/2023/home https://blog.igem.org/blog/2023/12/19/thank-you-for-making-igem-2023-the-20th-year-of-igem-a-year-to-rememberhttps://static.igem.org/peertube/streaming-playlists/hls/5703ce0f-0b7f-4d69-99ef-4a1d4e200901/eb93504e-39b2-4896-b28b-550a75ba9d16-master.m3u8https://video.igem.org/videos/embed/bKd4Rv2uYvxEFLAaeDCsLi148049112024-02-06T13:55:07.284ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/9MqKK8cJmKUAe9URTsZVNohttps://video.igem.org/lazy-static/thumbnails/748f8dd0-eb07-4927-a7fb-6506f4de37e4.jpgAI For SynBio - iGEM CommunityWith recent examples of using Artificial Intelligence for protein structure predicition, AI has the potential to enhance synthetic biology and enable its full impact by opening a new frotiner in the design & engineering phase space: physical, chemical, and biological. AI for SynBio aims to merge AI with synthetic biology, providing a suite of educational resources, software tools and a collaborative platform to foster innovation, facilitate knowledge exchange, and support AI-driven solutions in synthetic biology. Learn more: https://community.igem.org/projects/ai-for-synbiohttps://static.igem.org/peertube/streaming-playlists/hls/4720d591-336e-4b64-8996-affa496ffe9e/3f3700bb-f04d-49fe-8760-3dc3a7c4dcb3-master.m3u8https://video.igem.org/videos/embed/9MqKK8cJmKUAe9URTsZVNo1100292024-02-13T17:26:27.505ZAcademia & ResearchSynthetic BiologyArtificial IntelligenceYESiGEM CommunityNOhttps://video.igem.org/w/vkGeshvPTCdW4jHUr8wxPEhttps://video.igem.org/lazy-static/thumbnails/254f4acb-de3e-42a0-a0d3-7e1d0a440513.jpgGirlsLab - iGEM CommunityUnleash your potential in STEM with our 4-month mentorship program! You will be mentored by professionals from academia, industry, and governance on career progression, gain valuable skills, build connections, and inspire others through sharing your journey. Learn more: https://community.igem.org/projects/girlslabhttps://static.igem.org/peertube/streaming-playlists/hls/ed98f253-c4e3-4a8c-a0fa-1cbb32a99668/f459db4f-4cc5-4135-9914-c690a4e98deb-master.m3u8https://video.igem.org/videos/embed/vkGeshvPTCdW4jHUr8wxPE1070332024-02-13T17:31:01.049ZWomen in STEMYESiGEM CommunityNOhttps://video.igem.org/w/uGTzMHRmiHzEfQuhrKTaVohttps://video.igem.org/lazy-static/thumbnails/b2f62378-c3b8-4390-9214-5e779ac40a81.jpgSynBio For Rare Diseases - iGEM CommunityThe project spearheads community building efforts to accelerate solutions for rare diseases, driving technology innovation through biohackathon collaboration while also pressing for policy reform through patient advocacy that brings urgency to unlocking life-changing treatments. Learn more: https://community.igem.org/projects/synbio-for-rare-diseaseshttps://static.igem.org/peertube/streaming-playlists/hls/e8756c12-aba3-4494-9ba6-69a6377dbca4/eb42d08e-939f-4488-bce3-b0f6a5a9a351-master.m3u8https://video.igem.org/videos/embed/uGTzMHRmiHzEfQuhrKTaVo1170222024-02-13T17:34:10.807ZAcademia & ResearchTherapeuticsDiseaseYESiGEM CommunityNOhttps://video.igem.org/w/qtuharVhHut5LGdp42PhnHhttps://video.igem.org/lazy-static/thumbnails/bb2aeedd-01a8-4728-ab41-c2d572abb426.jpgiGEM Model United Nations (iGEM MUN) - iGEM CommunityBuild your potential as a global leader at our Model UN conference focused on the crucial issues of biological weapons and biodiversity conservation. As a delegate, you'll hone your negotiation and drafting skills while making a real impact on the world. Learn more: https://community.igem.org/projects/igem-model-unhttps://static.igem.org/peertube/streaming-playlists/hls/c631d644-4a0c-4fa8-bad8-bea617a64833/196a96a2-8e82-41b9-9f2c-8943900e70dc-master.m3u8https://video.igem.org/videos/embed/qtuharVhHut5LGdp42PhnH880152024-02-13T17:38:08.416ZOpen Science & AccessibilityGovernance & PolicyYESiGEM CommunityNOhttps://video.igem.org/w/2xrpNkgRdsu2MixPDPUgUfhttps://video.igem.org/lazy-static/thumbnails/b6ce18ba-e3f2-40cc-9e1d-8dccc5e5890b.jpgiGEMx - iGEM CommunityiGEMx: Biocatalyst for Beginners is a transformative initiative empowering high school and college students in biology. This platform guides you in exploring emerging biotech fields, connecting with seasoned professionals, and sculpting a strong professional identity. Learn more: https://community.igem.org/projects/igem-xhttps://static.igem.org/peertube/streaming-playlists/hls/0c7cdaee-5200-4e5b-9087-516b2c47d962/c91d5a20-537a-4774-9c6a-2250eeb9d332-master.m3u8https://video.igem.org/videos/embed/2xrpNkgRdsu2MixPDPUgUf890132024-02-13T17:40:32.413ZEducationScience Communication Open Science & AccessibilityYESiGEM CommunityNOhttps://video.igem.org/w/2DukHQai1yyRRZKsnfsLeghttps://video.igem.org/lazy-static/thumbnails/93587d5e-3eaf-4cf4-b9a4-2724baa637e5.jpgSynBio For LATAM - iGEM CommunityThis project aims to create a Synbio Latin American (LATAM) network to connect the LATAM countries regarding Synbio topics. We seek to create high value connections, develop a collaboration environment, and promote diverse opportunities among the LATAM community. Learn more: https://community.igem.org/projects/synbio-for-latamhttps://static.igem.org/peertube/streaming-playlists/hls/0d551f91-23f7-4431-8723-7f3e2eda6741/a345ed79-f474-4c34-a3b8-6230d0ac37e0-master.m3u8https://video.igem.org/videos/embed/2DukHQai1yyRRZKsnfsLeg920292024-02-13T17:46:39.053ZLatin AmericaScience CommunicationOpen Science & AccessibilityYESiGEM CommunityNOhttps://video.igem.org/w/rcFsudPsjUeffkD4reEVNXhttps://video.igem.org/lazy-static/thumbnails/88042490-6133-4abb-a019-2e25b5fc94cf.jpgSynthAfrica - iGEM CommunityThis initiative addresses synthetic biology knowledge gaps in Africa, tailored to the continent's challenges. With transformative potential in medicine, agriculture, and industry, our project seeks to bridge the awareness and education gap. Through a comprehensive platform, we aim to democratize synthetic biology education, fostering innovation for sustainable development. Learn more: https://community.igem.org/projects/synthafricahttps://static.igem.org/peertube/streaming-playlists/hls/cc15f6c8-eec2-415c-ab97-7c745ef921b7/72fe6c34-419d-48c8-962d-d816dca7b128-master.m3u8https://video.igem.org/videos/embed/rcFsudPsjUeffkD4reEVNX930152024-02-13T17:49:21.006ZEducationOpen Science & AccessibilityScience CommunicationYESiGEM CommunityNOhttps://video.igem.org/w/srws5i1mX2eesre7oPaT42https://video.igem.org/lazy-static/thumbnails/1b7a1df8-b289-4a72-a48e-78f4155b796a.jpgSythesizing Synergies - iGEM CommunityThe project is an initiative to foster teamwork, boost innovation, and elevate the collective output of iGEM teams with guidance and regulation. The project addresses uneven work distribution among team members and help participants work to their potential for contributing their best work to the realm of synthetic biology. Learn more: https://community.igem.org/projects/synthesizing-synergieshttps://static.igem.org/peertube/streaming-playlists/hls/d61df6f0-df6e-476b-b250-066c91f242f3/8356f473-e646-4139-8fd1-100979b9b5e1-master.m3u8https://video.igem.org/videos/embed/srws5i1mX2eesre7oPaT421210242024-02-13T17:50:21.002ZAcademia & ResearchYESiGEM CommunityNOhttps://video.igem.org/w/hJai78ayuk7mCn9o6Pkp2Chttps://video.igem.org/lazy-static/thumbnails/3449432f-f64f-4143-b2db-9ab001351dd4.jpgSynbio in Space - iGEM CommunityThis project sparks wonder in synthetic biology's potential for space by building a community to collaborate on the endless opportunities ahead. This project aims to create resources for the iGEM Space Village. A selective cohort of space biologists will design an experiment for ISS conditions, revealing synthetic biology's immense potential. Learn more: https://community.igem.org/projects/synbio-in-spacehttps://static.igem.org/peertube/streaming-playlists/hls/87752f62-b898-4966-b910-fb0797377c22/9f51a23e-9285-4d9c-8f4b-9ee517f3483d-master.m3u8https://video.igem.org/videos/embed/hJai78ayuk7mCn9o6Pkp2C1180252024-02-13T22:05:38.598ZAcademia & ResearchYESiGEM CommunityNOhttps://video.igem.org/w/kGcFneZRjgZKQSRhGsMTAbhttps://video.igem.org/lazy-static/thumbnails/decc4c3d-bb00-4d4f-8331-7661b60b0412.jpgMastering Biosafety & Biosecurity - iGEM CommunityAmidst the surge of biological innovation, responsible research practices to safeguard our communities and environment becomes even more important. This free course gives an introduction to these issues, equipping scientists with essential biosecurity and biosafety knowledge to practice safe science. Dive into laboratory safety, ethical practices, and global policies to empower your science with safety and responsibility. Learn more: https://community.igem.org/projects/mastering-biosafety-and-biosecurityhttps://static.igem.org/peertube/streaming-playlists/hls/9f7a9526-0a68-49a3-9ad1-f8110d075012/693cc630-cad9-4f3d-84c9-579dab950e87-master.m3u8https://video.igem.org/videos/embed/kGcFneZRjgZKQSRhGsMTAb1050332024-02-13T22:30:45.848ZGovernance & PolicyYESiGEM CommunityNOhttps://video.igem.org/w/rY4G4qCH4SdnxaZuLntga2https://video.igem.org/lazy-static/thumbnails/909f51df-4fc9-4226-9dcc-f05f0cfa7f45.jpgPolicy Research - iGEM CommunityExploring the evolving landscape of synthetic biology, this initiative seeks to generate insightful research into policy topics related to synthetic biology through collaboration. Our goal is to engage young scientists, policymakers, and stakeholders in contributing to effective governance for SynBio, promoting knowledge exchange and ethical advancements in this field. Learn more: https://community.igem.org/projects/policy-researchhttps://static.igem.org/peertube/streaming-playlists/hls/d248645f-37ad-4623-960c-bbf17881bbaf/51972efc-e3c0-4d52-9bca-a5eb1122557b-master.m3u8https://video.igem.org/videos/embed/rY4G4qCH4SdnxaZuLntga2990412024-02-13T22:35:45.796ZGovernance & PolicyYESiGEM CommunityNOhttps://video.igem.org/w/seTnURTos3Wqu17NewwXZWhttps://video.igem.org/lazy-static/thumbnails/ed0de3d1-e500-487d-ba03-fe338d000822.jpgiGEM Academy (2022)iGEM Academy (2022)https://static.igem.org/peertube/streaming-playlists/hls/d47defd5-9b72-4105-8970-4c48f88a980c/aa6aa56e-754b-4108-8fb1-fcec6ad77e53-master.m3u8https://video.igem.org/videos/embed/seTnURTos3Wqu17NewwXZW1860142024-02-16T23:13:56.969ZYESiGEM Design LeagueNOhttps://video.igem.org/w/rdHEnWL14VEHicNtFW8eDzhttps://video.igem.org/lazy-static/thumbnails/9f984d5d-6ebe-480a-87f6-a280f037341a.jpgEntrepreneurship 101 - iGEM CommunityThis project aims to empower aspiring and existing entrepreneurs by developing a comprehensive toolkit for entrepreneurship and entrepreneurial thinking. Through online resources and community engagement, the project fosters the skills and mindset essential for launching and sustaining successful ventures, contributing to economic growth and innovation. Learn more: https://community.igem.org/projects/entrepreneurship-101https://static.igem.org/peertube/streaming-playlists/hls/cc3b1111-690a-439b-a540-d65913bb4bef/5eb64347-ec4f-4168-92bc-c1bfcb591034-master.m3u8https://video.igem.org/videos/embed/rdHEnWL14VEHicNtFW8eDz940382024-02-17T23:07:35.243ZIndustryYESiGEM CommunityNOhttps://video.igem.org/w/9C4LSjM3drrA8K1KggaGwAhttps://video.igem.org/lazy-static/thumbnails/ad10deb1-510c-4422-938c-e3668e2199c7.jpgCommunity Day 3.0 - iGEM CommunitySynbio community leaders from around the world presented the projects important for the development and growth of the synthetic biology ecosystem during the Community Day. Project Themes: - Advancement of synthetic biology (AI, Space, Art & Design Process, Rare Diseases) - Career and skills development (Entrepreneurship, Biosafety & Security, Art & Design Process) - Regional synthetic biology development - Creating value on dedicated topics of synthetic biology and morehttps://static.igem.org/peertube/streaming-playlists/hls/45d235e6-b105-4872-9d87-8f3f97b5b606/df9c8ed5-e24e-437e-9d56-f85dcdb2c16c-master.m3u8https://video.igem.org/videos/embed/9C4LSjM3drrA8K1KggaGwA35110232024-02-19T11:59:42.904ZEventiGEM CommunityYESiGEM CommunityNOhttps://video.igem.org/w/bNZjaTGKzybPcFSo8GcAX2https://video.igem.org/lazy-static/thumbnails/cd63c2fe-9043-4b63-bb52-17ca927da44c.jpg#DesignWithBiology Grand prize - Boston trip iDL2021 winners#DesignWithBiology Grand prize - Boston trip iDL2021 winnershttps://static.igem.org/peertube/streaming-playlists/hls/578aebab-947c-4534-9ec2-0c2712f87457/301b1707-b2d9-4c9a-b2d4-339dea3be288-master.m3u8https://video.igem.org/videos/embed/bNZjaTGKzybPcFSo8GcAX2140002024-02-20T21:12:38.522ZYESiGEM Design LeagueNOhttps://video.igem.org/w/48SAcAAsJEHvvVSdXKXr1xhttps://video.igem.org/lazy-static/thumbnails/910cb06e-bf2b-4a58-a7fb-c598b59556e7.jpgBioart Hub Prototype Demo - iGEM CommunityThe BioArt Hub aims to build and get together the community to fill the gaps between the science and creativity communities. This is a digital platform that has the objective to facilitate communication, make new connections, exchange ideas, democratize and standardize collaborations, a place where people can share their interest in working with another’s. The team created a prototype for the hub allowing members to host projects and opportunities. Learn more: https://community.igem.org/projects/bioart-hubhttps://static.igem.org/peertube/streaming-playlists/hls/1964cca2-5616-457f-a105-61405fe5f94b/ac5668a4-dab0-4f99-8e02-5a7627f98894-master.m3u8https://video.igem.org/videos/embed/48SAcAAsJEHvvVSdXKXr1x770232024-02-20T15:20:16.332ZBioartYESiGEM CommunityNOhttps://video.igem.org/w/1XXXwDy2cVvUFh8ugbKg7qhttps://video.igem.org/lazy-static/thumbnails/abe1d8fd-6e19-4777-b777-5b8fc1d18755.jpgiGEM Arts Gallery 2024 - iGEM CommunityThe iGEM Arts Gallery aims to build an annual bioart exhibition to show projects from people around the world (virtual and in-person). We want to promote new and well-established artists and their creations as a manifest, which impacts a specific social-cultural theme integrating SynBio. The project aims to bring disruptive perspectives of individuals and communities, and invites them to convene and express their ideas on topics at the interface of Arts, Biology & Society through art. The first Arts Gallery was established in 2022 with a seuquel in 2023. Currently, it has evolved into a crash course and space for people interested in art, technology, and biology to develop their artistic side. Learn more: https://community.igem.org/projects/igem-arts-galleryhttps://static.igem.org/peertube/streaming-playlists/hls/07d0646e-ba19-407b-a8d8-db462e1178c8/bfb7b376-d5ee-4b17-ae02-9948aecd4236-master.m3u8https://video.igem.org/videos/embed/1XXXwDy2cVvUFh8ugbKg7q1540312024-02-20T22:43:27.593ZBioartYESiGEM CommunityNOhttps://video.igem.org/w/hF9mqGecLYSFAtD6We1SM4https://video.igem.org/lazy-static/thumbnails/7911baec-8180-4830-a84a-97bf1e00870c.jpgCommunity Day 1.0 - iGEM CommunityCommunity Day 1.0 - iGEM Communityhttps://static.igem.org/peertube/streaming-playlists/hls/87095f6f-9441-4443-beb7-5bb5fbbb538d/a94054f4-2fe4-4f08-905f-ec7eb15de62d-master.m3u8https://video.igem.org/videos/embed/hF9mqGecLYSFAtD6We1SM42653062024-02-21T15:47:32.855ZYESiGEM CommunityNOhttps://video.igem.org/w/c64GkHXE5XRBQT6d55KSEchttps://video.igem.org/lazy-static/thumbnails/a66d9d7c-3677-4b19-8217-5e94749fe7ac.jpgCommunity Day 2.0 - iGEM CommunityCommunity Day 2.0 - iGEM Communityhttps://static.igem.org/peertube/streaming-playlists/hls/59c98584-8ef0-4c91-92ec-0f1fd5d73fa7/66d81fe9-9d48-473b-9303-acdd025b4c04-master.m3u8https://video.igem.org/videos/embed/c64GkHXE5XRBQT6d55KSEc33550122024-02-21T16:20:20.745ZYESiGEM CommunityNOhttps://video.igem.org/w/1Kn2bou41eAqM6HhLFAxoXhttps://video.igem.org/lazy-static/thumbnails/4cd86496-052a-4031-b2ea-dc1185d0fd7a.jpgiGEM BioCreative Hub - iGEM CommunityThe BioCreative Hub serves as a vital link between the scientific and creative communities, facilitating robust communication, forging new connections, sharing ideas, and democratizing access to the arts. It cultivates an environment conducive to collaboration while also introducing, fostering, and backing biodesign and product design concepts and processes within synthetic biology projects. Learn more: https://community.igem.org/projects/igem-biocreative-hub https://static.igem.org/peertube/streaming-playlists/hls/060defb4-8393-4abb-b58a-e64d519ff44f/7446a32d-298d-4abb-b77b-db48313e3113-master.m3u8https://video.igem.org/videos/embed/1Kn2bou41eAqM6HhLFAxoX2460862024-02-23T16:53:57.436ZIndustryBioartYESiGEM CommunityNOhttps://video.igem.org/w/qKQweUBswJ2YrxbHsGpLzNhttps://video.igem.org/lazy-static/thumbnails/c5d9d321-7848-423a-aa7a-bf17ea3f3308.jpgBreaking Frontiers, Empowering Biofounders and Overcoming the Gender GapJoin us for an insightful discussion on empowering biofounders and addressing gender disparities within the synthetic biology landscape. Discover how pioneering visions break frontiers and inspire progress while fostering inclusivity and diversity.https://static.igem.org/peertube/streaming-playlists/hls/c87a3659-efb2-4122-91e3-0da6f1ddda70/292a1fc0-fa2e-48f9-9865-ed1443e84bc9-master.m3u8https://video.igem.org/videos/embed/qKQweUBswJ2YrxbHsGpLzN2456062024-03-11T14:28:10.628ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/namaX99oxs9ffMzXzKv7uNhttps://video.igem.org/lazy-static/thumbnails/ea5472fe-3a8f-4c55-9c6d-6695fd4e9f7f.jpgGame Changer: Karyo Studios' Founding JourneyIn this session, we invite you to embark on a journey through the founding story of Karyo Studios. Learn how Karyo Studios aims to explore synthetic biology through a video game and gain a fresh perspective on the potential of entrepreneurship in this dynamic field.https://static.igem.org/peertube/streaming-playlists/hls/ab5e0976-0de3-4490-9c9d-0cb3372c8a76/9d4d7800-c124-46d3-b777-551e3b9ddec7-master.m3u8https://video.igem.org/videos/embed/namaX99oxs9ffMzXzKv7uN990022024-03-11T14:43:25.762ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/tJU9ghVhoNzxfAbQQFhz6ahttps://video.igem.org/lazy-static/thumbnails/e03699ca-e3a0-4760-93e5-110879071d90.jpgiGEM Distribution Kits: How to Make DNA at ScaleWhen the iGEM Distribution launched in 2004, DNA was shared amongst teams first in 96-well plates, then later by blotting each sequence onto filter paper, until finally being shared in the 384-well Distribution Kit Plates you know so well. This year, Asimov isolated, verified, checked, and packaged more than 240,000 individual DNA sequences using robots and software that tracks each part. Come learn about the history of the Distribution and how we made it all happen for iGEM 2023.https://static.igem.org/peertube/streaming-playlists/hls/e0a41db8-e875-4651-9344-cab3df47c7bf/5a4f560b-c9bf-40b6-adbb-7c1b6f7bb728-master.m3u8https://video.igem.org/videos/embed/tJU9ghVhoNzxfAbQQFhz6a899092024-03-11T14:53:45.377ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/cEPExDjMcA7Gb8zd1Ntvehhttps://video.igem.org/lazy-static/thumbnails/43874337-4334-4e7b-8e97-ce18676bfda8.jpgYour Career After iGEM 2023: Navigating Your Biofounder Journey with iGEM StartupsChart your post-iGEM 2023 career path with a dynamic exploration of the biofounder journey facilitated by iGEM startups. Uncover the valuable insights, strategies, and groundbreaking opportunities that await you as you embark on a transformative career in the world of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/5e8029b1-36e8-4efd-b5bc-960e4a27bbae/e7e37a1e-26ae-43d3-9d9e-59af0a4c371d-master.m3u8https://video.igem.org/videos/embed/cEPExDjMcA7Gb8zd1Ntveh1629022024-03-11T15:12:48.631ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/whYM9KnAiPZoudGeFU5hvAhttps://video.igem.org/lazy-static/thumbnails/b3f59bdb-ab1c-4208-becc-3b9841e31eba.jpgScience, Security, Innovation and PolicyScience, Security, Innovation and Policyhttps://static.igem.org/peertube/streaming-playlists/hls/f5510d14-4336-457d-8257-8f798ac81d74/d2e3acbe-2126-4564-8075-15b8aa6c4706-master.m3u8https://video.igem.org/videos/embed/whYM9KnAiPZoudGeFU5hvA829002024-03-11T15:20:50.076ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/1uPU9CCJgmwf6GkqHgvr5bhttps://video.igem.org/lazy-static/thumbnails/85a596d8-afff-4295-949b-1fbd66f52196.jpgBiofoundry in China Provides a New Way to Serve iGEM CommunityAs a paradigm shift is looming on the horizon of synthetic biology, robots will take over the wetlab, churching out standardized and systematic data; and this data will be parsed by AI to foster intuition and set off imagination of humans. Biofoundry is where such paradigm shift kicks start. In this episode, a story will be told on the birth of a biofoundry in Shenzhen City and how it might enable iGEMers.https://static.igem.org/peertube/streaming-playlists/hls/0406582d-38f9-4641-b32c-ab25d300ea0e/7603ae4b-1a6d-42bf-9b5f-1db88960439d-master.m3u8https://video.igem.org/videos/embed/1uPU9CCJgmwf6GkqHgvr5b879032024-03-11T15:30:01.137ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/7Dq7166yc1WMYKCezFLm3Bhttps://video.igem.org/lazy-static/thumbnails/c33f24e3-08db-48ef-9fc5-8cf276736292.jpgiGEM: A Model System for Team Science and InnovationiGEM Insights is an initiative sparked by a growing community of iGEMers and researchers around the world interested in learning about the process of science, engineering, and innovation. We aim to leverage data from iGEM as a unique open and international testbed to improve both the competition and the practice of synthetic biology (and science and engineering more broadly) beyond the competition. In this presentation, we showcase results obtained by combining digital laboratory notebooks with performance data from 2,406 teams over multiple years of participation into a publicly available dataset. By studying intra- and inter-team interaction networks, we reveal shared dynamical and organizational patterns across teams and identify features associated with team performance and learning. Overall, this data makes visible organizational behavior that is typically hidden, creating new opportunities for iGEM teams to learn from the past competitions.https://static.igem.org/peertube/streaming-playlists/hls/35d034ab-a046-4230-aeee-ff10c8a59797/3e81e9f7-73a7-4695-8b0f-98a9ade19937-master.m3u8https://video.igem.org/videos/embed/7Dq7166yc1WMYKCezFLm3B750012024-03-11T15:39:28.532ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/t8Tra5C8RVVgJZAgP8xXN1https://video.igem.org/lazy-static/thumbnails/0fecd0e2-d9a4-49ff-988a-115fe872c741.jpgiGEM Design League: Empowering Ibero-America to #DesignWithBiologyiGEM Design League: Empowering Ibero-America to #DesignWithBiologyhttps://static.igem.org/peertube/streaming-playlists/hls/dbc0a5ba-5169-40f9-aafa-d7f7d9e30f90/2a7fb0a0-736a-417c-9a79-661d40fa8a51-master.m3u8https://video.igem.org/videos/embed/t8Tra5C8RVVgJZAgP8xXN1652002024-03-11T15:47:30.930ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/42LtLG2djA5Pha5WpPZGQ8https://video.igem.org/lazy-static/thumbnails/b81200ca-8df7-4252-abc9-7aec989f6f35.jpgSynBio 101: Unlocking Accessibility In Synthetic Biology EducationIn a world now led by advancements in synthetic biology, iGEMers understand the importance of educating the next generations in these fields. The SynBio 101 Project aims to bring accessible synthetic biology education to the scientists of tomorrow through frugal DIY kits, interactive workshops, and lectures, aiming to expose younger audiences to this engineering biological systems.https://static.igem.org/peertube/streaming-playlists/hls/188a921f-021c-47dc-a086-4fa173ae033f/8f95b97f-6c67-4868-9df9-b37967f5c3d7-master.m3u8https://video.igem.org/videos/embed/42LtLG2djA5Pha5WpPZGQ83820162024-03-11T15:52:18.755ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/xneSJuHwxtohhaCfiSMe8Shttps://video.igem.org/lazy-static/thumbnails/764bbb8e-7846-4e1e-bd82-8aa776ceeb72.jpgPathways of Impact: Exploring Diverse Careers in Science and TechnologyDive into innovative science careers reshaping the landscape. From community leadership to global development, discover unconventional roles propelling research forward. This session offers a window into varied pathways, highlighting the dynamic contributions of professionals driving change. Join us for insights that transcend boundaries and inspire all attendees to forge new trajectories in the world of scientific exploration.https://static.igem.org/peertube/streaming-playlists/hls/fe0277dd-24c1-46f9-a877-c63252471ce4/d1c1bffc-12ea-44ac-9423-0820b20e0c2e-master.m3u8https://video.igem.org/videos/embed/xneSJuHwxtohhaCfiSMe8S1768032024-03-11T16:23:44.827ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/czuqVVwWoocPHW7B8To3BNhttps://video.igem.org/lazy-static/thumbnails/99b1cdd6-b3c8-4662-8fd1-d032d6ac1c49.jpgSynBio Communities Around the World (Part I)When building a technology ecosystem it is important to engage and include the community in the conversation; and nurture a collective approach to overcome barriers and identify opportunities for growth. Learn how Synthetic Biology Associations around the world are building local synbio communities. Session featuring: SynBio Australasia, SynBio Indonesia, GASB (Germany), ATG SynBio Spain and Allbiotech (Latin America).https://static.igem.org/peertube/streaming-playlists/hls/5dc19715-6a5c-41e8-b78e-b0b86eabc124/7d1fc5b8-fdad-4507-afdd-e2295492dcb2-master.m3u8https://video.igem.org/videos/embed/czuqVVwWoocPHW7B8To3BN1709052024-03-11T16:57:22.356ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/gstfgivWojnvKeoPtZk7hchttps://video.igem.org/lazy-static/thumbnails/a7fa5173-46e9-452f-a59d-6f7f12a9e9c7.jpgiGEM Trivia With Genscript - 1Do you love synthetic biology AND trivia? Join GenScript’s iGEM Trivia! Come bond with fellow iGEM teams as we play an iGEM and Synthetic Biology- themed TRIVIA game! Participants can join simply using their cell phones or a device connected to the internet. Top winners will receive a prize!https://static.igem.org/peertube/streaming-playlists/hls/7d2b3575-336e-4471-9004-9d73f8f427ab/73de8380-807d-4144-b52a-14ed8bb345b4-master.m3u8https://video.igem.org/videos/embed/gstfgivWojnvKeoPtZk7hc1102022024-03-11T17:08:30.514ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/gNbeYToRtDZAGVAqJDTMbkhttps://video.igem.org/lazy-static/thumbnails/e6e14469-cf37-4aae-adbf-6500bd3d38c6.jpgDNA Synthesis: Essential Tool for Pandemic PreparednessJoin us for an insightful session with the CTO of DNA Script, exploring the pivotal role of DNA synthesis in pandemic response. Delve into metagenomics, sequencing, qPCR tests, and vaccine development, using COVID-19 as a case study. Learn from past challenges and discover innovative solutions for resilient DNA synthesis supply chains in future pandemics.https://static.igem.org/peertube/streaming-playlists/hls/7feb9ac6-6957-409b-ae31-4f543debb733/6491dbeb-9a79-47aa-9428-940fbdc7c0f5-master.m3u8https://video.igem.org/videos/embed/gNbeYToRtDZAGVAqJDTMbk825012024-03-11T17:16:18.553ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/5WKReWaPmx8YY5hft9Q1Xvhttps://video.igem.org/lazy-static/thumbnails/88374e04-0d0d-4cb0-94f2-219c4ae82d67.jpgStartup Showcase Kick-off: Launching the FutureWelcome once again to the famed Startup Showcase at the iGEM Grand Jamboree. Witness the best teams of our 2023 Cohort, pitching live to our legendary panel of judges for a 10.000 USD cash prize. Join us as we light the innovation flame that will guide us through a day filled with groundbreaking ideas and visionary projects.https://static.igem.org/peertube/streaming-playlists/hls/2809bdb9-3b05-4d6b-bd6a-002cd73a9ff3/a9eb1577-ebe7-4912-9a42-d26c4b9a4531-master.m3u8https://video.igem.org/videos/embed/5WKReWaPmx8YY5hft9Q1Xv420012024-03-11T17:21:00.725ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/h7MLdxg2jraMwKAnKd9ou5https://video.igem.org/lazy-static/thumbnails/4b9eb645-8414-4404-bef0-c64bdf3e5787.jpgBioinnovation Halftime: Recap SpotlightAs we reach the midpoint of our event, get ready for engaging Q&As and sessions. We'll engage in thoughtful discussions as we recap the highlights of the day's tracks.https://static.igem.org/peertube/streaming-playlists/hls/8284e21b-4985-47a0-a6a9-f616259f0294/3cd85708-4086-4994-b0c8-455fc6a74417-master.m3u8https://video.igem.org/videos/embed/h7MLdxg2jraMwKAnKd9ou5257002024-03-11T17:23:33.801ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/sdkaAxLN8xCCDGrzbxCGZfhttps://video.igem.org/lazy-static/thumbnails/71f2bcba-4d1b-46a7-8982-ce8c46c5b1dc.jpgBeyond the Bench: Scaling Hurdles in Biomanufacturing StartupsJourney beyond the laboratory bench as we explore the unique challenges and successes of scaling biomanufacturing startups for industrial production. Discover the strategies and best practices that propel these ventures toward excellence.https://static.igem.org/peertube/streaming-playlists/hls/d446576e-100e-47fe-b504-3bcca6bc3428/3261f06a-bdc9-4d21-8ec5-af7737996994-master.m3u8https://video.igem.org/videos/embed/sdkaAxLN8xCCDGrzbxCGZf2628022024-03-11T18:01:18.685ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/bAkzk25aHim3xwBu2QsbiYhttps://video.igem.org/lazy-static/thumbnails/857cbd5c-21fe-40d8-b3c4-3b1979ab762c.jpgInnovate or Perish: How to do Ideation Systematically until Success!Are you ready to take innovation to the next level? Join us in this interactive workshop, where we'll dive deep into the world of ideation and explore the systematic approach that can lead your ideas to success. Whether you're an entrepreneur, a team leader, or simply someone passionate about bringing fresh ideas to life, this workshop will equip you with the tools and insights you need to innovate effectively and avoid the perils of stagnation.https://static.igem.org/peertube/streaming-playlists/hls/55c6bcf1-fdb9-426c-a1c0-885706b912aa/5b3145bd-6203-4bdb-b004-c8fa5dbbfaa4-master.m3u8https://video.igem.org/videos/embed/bAkzk25aHim3xwBu2QsbiY2635032024-03-11T18:57:05.071ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/itkmVqmSRBmSYeCHADMDq3https://video.igem.org/lazy-static/thumbnails/3ff66e16-0b7e-40b7-bf64-804cf080b710.jpgBalancing Act: Sustainable Resource Use and Responsibility in Feed, Food, and ChemicalsDelve into the art of balancing sustainability and responsibility within the bioeconomy, with a specific focus on feed, food, and the production of chemicals. Hear from companies in these sectors and safety & security experts, exploring the critical issues surrounding resource stewardship, ethical considerations, and environmental impact.https://static.igem.org/peertube/streaming-playlists/hls/8d7c5ed7-1ac6-4c80-a3fe-e74b0e5b767e/cc342ff5-28de-41d8-8a53-21082869d8e1-master.m3u8https://video.igem.org/videos/embed/itkmVqmSRBmSYeCHADMDq32588032024-03-11T19:35:18.558ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/dZFD6kMcDaS7gFLY6itHEnhttps://video.igem.org/lazy-static/thumbnails/e4eb2ca1-5eea-4f60-b858-3d405d79371e.jpgiGEM 2103: A Glimpse into the Next Century of SynBio EvolutionIt's the 20th year of iGEM! But have you ever wondered what the world will be like at iGEM's 100th Birthday? Take a visionary expedition into the future of synthetic biology as we explore the world of the next century and how iGEMers will shape it. Join us in imagining the transformative breakthroughs and possibilities that lie ahead in an interactive session. We can't wait for your ideas!https://static.igem.org/peertube/streaming-playlists/hls/693b7cce-d911-4143-b3db-16eb37ab00dd/939cdfde-85f4-4212-b3d0-5fa90303ac15-master.m3u8https://video.igem.org/videos/embed/dZFD6kMcDaS7gFLY6itHEn2751012024-03-11T20:05:11.368ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/aXRCVxxtdiwcNYUghERxH3https://video.igem.org/lazy-static/thumbnails/6108eabb-125d-466c-b658-46389b9d3fa9.jpgGrowing Plant Synthetic Biology: Introducing the Plants ToolkitChassis organisms such as E. coli and yeasts remain the go-to choices for the majority of iGEM teams. However, it's a rare sight to see iGEM teams delving into plant synthetic biology projects. Beyond the challenge posed by the slow growth of plants, the scarcity of genetic components, esablished protocols, and essential resources further hinders teams embarking on plant chassis projects. We will showcase the efforts of the plant subcommittee on building the plant toolkit. This new toolkit includes vectors for the use of plant transformation, to facilitate the initiation of plant-related projects, making them more accessible, particularly for the upcoming generations of iGEM enthusiasts. We enthusiastically invite you to participate and provide us with your feedback and innovative ideas on how to support iGEM teams.https://static.igem.org/peertube/streaming-playlists/hls/50aebeb4-16c9-4cbc-963d-d193e5be1c70/238eb629-e6d3-4394-872b-d6f00055e87a-master.m3u8https://video.igem.org/videos/embed/aXRCVxxtdiwcNYUghERxH31713082024-03-11T20:22:32.667ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/3JkQNS61TmDK7S9mhrY414https://video.igem.org/lazy-static/thumbnails/71bb5c0c-52d1-422e-96c5-bc7331b9388a.jpgWords, Games, and Narratives: Innovative Approaches to Synthetic Biology OutreachSynthetic biology will touch nearly every aspect of our lives during the 21st century, but many people are still unaware of how it works or why it matters. Specialized magazines, creative video games, and a new generation of storytellers are trying to change that. Come learn from the writers, editors, and game developers who are spreading synthetic biology around the world.https://static.igem.org/peertube/streaming-playlists/hls/161bbe51-62cc-47bc-8754-94c2dbc1b3bf/26071491-a9b2-4a44-a0dd-a42fa347129f-master.m3u8https://video.igem.org/videos/embed/3JkQNS61TmDK7S9mhrY4141650032024-03-11T20:37:41.029ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/7HjURF73Lvs9p4DY54f79Yhttps://video.igem.org/lazy-static/thumbnails/6bcdfa0d-ca29-443e-9e55-9e2443518d95.jpgIndustry Insights: Showcasing Vision and Impact (Part 2)In the second part of our industry insights series, delve deep once more into the dynamic world of synthetic biology. Stakeholders will present their visions and profound impact on the industry, providing unique perspectives on innovation, growth, and progress.https://static.igem.org/peertube/streaming-playlists/hls/365bfb25-b01b-42db-857a-7ee33a60b840/75e04b02-f700-4aad-b274-61e16c77e01c-master.m3u8https://video.igem.org/videos/embed/7HjURF73Lvs9p4DY54f79Y1151022024-03-11T21:15:39.654ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/m6n2PPxHgNqCffos7S79AWhttps://video.igem.org/lazy-static/thumbnails/a5718ec8-56e9-488b-becd-3defdc6f4f54.jpg20 Years of iGEM Trivia - Celebrating Two Decades of SynBio ExcellenceEngage in a fun and interactive trivia session that celebrates the rich history of the iGEM community, while we wait for our judges to decide the spezial and Grand Prize Winners of the Startup Showcase. Test your knowledge, reminisce about milestones, and join us in commemorating two decades of excellence in synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/a2b67401-560a-4209-91c2-a5c5174c305a/96f572cf-7e42-4257-a378-c51e1ca11a3a-master.m3u8https://video.igem.org/videos/embed/m6n2PPxHgNqCffos7S79AW942022024-03-11T22:20:32.671ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/t832YMbGaihzGN3TJhiaNQhttps://video.igem.org/lazy-static/thumbnails/bb67456b-5a27-4ee2-b561-59df2beef584.jpgImpact Grant: Empowering Youth to Make an Impact in the World with SynBioThe goal of the Impact Grant is to support outstanding teams that are building upon the past of synthetic biology to create the future of the field.https://static.igem.org/peertube/streaming-playlists/hls/dba2342a-f6d1-476b-8232-8a26a5bd0088/3d24f36b-20fe-40ff-8bcf-bca94ba7201c-master.m3u8https://video.igem.org/videos/embed/t832YMbGaihzGN3TJhiaNQ677032024-03-11T22:45:23.147ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/eukZW71YuHSd9AYm6iF4tahttps://video.igem.org/lazy-static/thumbnails/bc594bc6-5155-4202-b857-5bbfac82d5dd.jpgIntroduction to Mammalian Synthetic BiologyMammalian cells can be tricky to work with; they grow more slowly than bacteria, and plasmids to engineer them can be many times larger. This year, Asimov partnered with iGEM to simplify mammalian synthetic biology for teams. We published a Beginner’s Guide for Mammalian Genetic Design, and also designed a new Mammalian Parts Collection that was included in this year’s Distribution Kit. Join us to hear about these activities and see what’s coming in 2024!https://static.igem.org/peertube/streaming-playlists/hls/6d3bf3ee-e53c-47d3-a235-40d16e51dedb/6c5568b6-8ebe-4731-8251-7049de8f2db8-master.m3u8https://video.igem.org/videos/embed/eukZW71YuHSd9AYm6iF4ta974052024-03-11T23:25:19.444ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/2tViEKZSC7FT72yd9MN73Fhttps://video.igem.org/lazy-static/thumbnails/dc3a2643-bcaf-4ff4-bef0-d62827349766.jpgFrom Savang to Merauke: A Journey Through the Indonesian League!From Savang to Merauke: A Journey Through the Indonesian League!https://static.igem.org/peertube/streaming-playlists/hls/0bff1212-56fc-43a7-af0e-c80f9e419773/0780ec1c-145c-461b-a920-ec1a951bbf76-master.m3u8https://video.igem.org/videos/embed/2tViEKZSC7FT72yd9MN73F695072024-03-11T23:45:22.994ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/iWHwUKMdY8M6bfgjhdCtKghttps://video.igem.org/lazy-static/thumbnails/82654212-97f5-410e-8d79-d52c4b8995f0.jpgFrom Frustration to Innovation: Engineering Solutions to Empower Research with Non-Model MicrobesThere’s a vast microbial frontier waiting to be explored beyond E. coli and S. cerevisiae. These lesser-known microbes have untapped potential for biotech innovations, but technical barriers have limited their adoption. In this session, we describe our open-source Possum toolkit to tackle one major barrier: quick and scalable plasmid transformation in non-model microbes. Join us to learn about molecular techniques that provide a crucial foothold for synbio research in unconventional systems.https://static.igem.org/peertube/streaming-playlists/hls/914f1dca-a533-49aa-a49a-532cae997cf9/da2a6bd0-49ba-48e5-9d5c-6fbf6751eeeb-master.m3u8https://video.igem.org/videos/embed/iWHwUKMdY8M6bfgjhdCtKg785012024-03-12T00:45:23.962ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/xpGphgq43GfkFqqiaMudRMhttps://video.igem.org/lazy-static/thumbnails/85696768-2d49-4c44-88c1-34089956a6e3.jpgFrom iGEM Alumni to Bioventure Titans: Pathways to SuccessEmbark on a transformative journey with iGEM alumni, who became up-and-coming biofounders and who have ascended to the pinnacle of bioventure leadership. Gain profound insights into the diverse pathways, challenges, and extraordinary opportunities that have led them to become innovators in the dynamic world of synthetic biology entrepreneurship.https://static.igem.org/peertube/streaming-playlists/hls/fe5a4dac-36e3-48a7-9c0f-b98ee2b66407/ac209b63-6e32-4ea6-b4a4-11b7dfb3aa49-master.m3u8https://video.igem.org/videos/embed/xpGphgq43GfkFqqiaMudRM2815022024-03-12T02:20:49.769ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/8cDNRjjoC7b22Ky9NfYtNthttps://video.igem.org/lazy-static/thumbnails/36f3662b-d607-4ebb-bc23-1c9bcab6db8f.jpgAccessing the Future: Synthetic Biology Education & CommunityWith recent developments by governments, biotechnology and synthetic biology are becoming the focus of innovation. Given this new era, it is important for the global Synthetic Biology community to strengthen ecosystem development and develop educational resources for future generations.https://static.igem.org/peertube/streaming-playlists/hls/3a5073b3-1f20-4d0e-95d2-a6842923dab3/0de2e893-6568-43ff-b52d-3cc2a6f704cd-master.m3u8https://video.igem.org/videos/embed/8cDNRjjoC7b22Ky9NfYtNt1490022024-03-12T02:45:26.202ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/kPPwV5o4J1QJJ4mE7e8rPchttps://video.igem.org/lazy-static/thumbnails/64ab3b44-9d6a-4155-be29-2d2927eef2cc.jpgFundraising 360: From Seed to Series, Unveiling Startup FinanceTake a comprehensive journey into the vast universe of venture capital and startup financing. Gain a profound understanding of the intricacies, opportunities, and challenges that define the world of startup financing and investment.https://static.igem.org/peertube/streaming-playlists/hls/a08ae28e-eed0-4d6b-bc45-6e5e5661845d/d94abb81-bde6-43fb-9356-36e6ecdc901a-master.m3u8https://video.igem.org/videos/embed/kPPwV5o4J1QJJ4mE7e8rPc1943002024-03-12T03:20:42.978ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/dLMrR6tWDUPRZvSvgCU7EXhttps://video.igem.org/lazy-static/thumbnails/a1d55f4a-4a26-4112-8069-2348c9aa7612.jpgInsights into the iGEM Startups EcosystemPause for a moment of reflection as we recap the highlights of 20 Years of Entrepreneurship in iGEM and the one-of-a-kind iGEM Startups community. Gain invaluable insights into the iGEM Startups Venture Foundry, and learn about initiatives designed to nurture and support the growth of aspiring bio-entrepreneurs. Celebrate the remarkable journey of innovation we've embarked on together and prepare for what lies ahead.https://static.igem.org/peertube/streaming-playlists/hls/676e658b-be6c-4242-9fbe-15a74d5cc7ab/8be39568-678e-4ce2-a5c8-031c08252337-master.m3u8https://video.igem.org/videos/embed/dLMrR6tWDUPRZvSvgCU7EX1204022024-03-12T03:40:34.514ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/rnz71ik8n7S7UCLnJ9jBbThttps://video.igem.org/lazy-static/thumbnails/5f3d34a0-4248-4489-a9fe-181369c6e075.jpgThe Pathway to Build a Synthetic Biology Ecosystem in the MENA Region: iGEM MENA LeagueThe Pathway to Build a Synthetic Biology Ecosystem in the MENA Region: iGEM MENA Leaguehttps://static.igem.org/peertube/streaming-playlists/hls/cd777c87-f13a-484e-a953-25839f11df33/8cab6f4a-bea2-4710-b940-2948f92e56d6-master.m3u8https://video.igem.org/videos/embed/rnz71ik8n7S7UCLnJ9jBbT757072024-03-12T03:50:52.575ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/rAFYvp6gpnXQ4YfQsvswaohttps://video.igem.org/lazy-static/thumbnails/0e4c9d16-265a-44a7-8ef4-1a0056ad55a9.jpgBiosecurity Risks of Smuggling Research MaterialsBiosecurity Risks of Smuggling Research Materialshttps://static.igem.org/peertube/streaming-playlists/hls/cf4c63c2-c0e8-4694-b2f4-1b5ec2b06e78/4e1a4ebe-31e2-413c-b59f-6aa3e83ad168-master.m3u8https://video.igem.org/videos/embed/rAFYvp6gpnXQ4YfQsvswao845012024-03-12T04:09:07.909ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/ocpposCJ2Mx48jw1iMXMEchttps://video.igem.org/lazy-static/thumbnails/518497e6-2042-47d4-a160-1fa5a4341722.jpgIgniting Innovation: Fueling SynBio Startups Globally for a Thriving FutureImmerse yourself in a riveting discussion on igniting innovation within the global synthetic biology startup ecosystem. Hear leaders from diverse bio-entrepreneurship ecosystems discuss local and global strategies and opportunities that fuel startups on their path to a thriving and impactful future.https://static.igem.org/peertube/streaming-playlists/hls/b3c0a79d-239c-4350-9c77-710240906903/e579e4d2-0c3c-46d0-a631-67cbf6f3ebc4-master.m3u8https://video.igem.org/videos/embed/ocpposCJ2Mx48jw1iMXMEc2448052024-03-12T05:10:58.089ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/72thCbykyqGrvJkQ1N9S33https://video.igem.org/lazy-static/thumbnails/38587e4b-07e9-4bcb-a9d9-ec1b78fe2035.jpgBootstrapped, Profitable, Global Leader - The Unique Story of NanoTemperJoin us for an intimate fireside chat with NanoTemper's CEO, Philipp Baaske. Immerse yourself in the captivating story of founding NanoTemper in the dynamic world of life sciences. Discover firsthand insights, challenges, and strategies that have propelled NanoTemper to become a shining example of entrepreneurial success.https://static.igem.org/peertube/streaming-playlists/hls/30cb6446-d14e-40da-bd07-bc0bd0b50f1e/c491fbe3-ce43-4cf8-8bfd-ab1024b961d8-master.m3u8https://video.igem.org/videos/embed/72thCbykyqGrvJkQ1N9S332336012024-03-12T06:57:17.588ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/3s4db2tBKMWZRPJ2xmk8ajhttps://video.igem.org/lazy-static/thumbnails/8a9ab2ef-d9cd-4c3b-a140-5df860819839.jpgStartup Showcase Track 1 - Food, AgTech & ClimatePrepare to be inspired by our top synbio startups addressing global challenges related to food security, agriculture, and climate change. In this track, our top teams will present their visionary projects aimed at cultivating a greener, more sustainable future for all.https://static.igem.org/peertube/streaming-playlists/hls/13d597ef-684e-480d-909a-ab0adec3def0/8b0b7772-fcc6-4179-9105-4b99cd74747b-master.m3u8https://video.igem.org/videos/embed/3s4db2tBKMWZRPJ2xmk8aj1955052024-03-12T07:33:48.804ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/tGewgjQvbMTZ4omkAUk7ZFhttps://video.igem.org/lazy-static/thumbnails/c284da84-767d-4f2d-bd7c-febddd97ac1c.jpgStartup Showcase Track 2 - Biomanufacturing & SoftwareDelve into the world of biomanufacturing and software innovation. Witness teams that are revolutionizing production processes through biotechnology and computational solutions. From bioproduction platforms to revolutionary software tools, our startups are ready to show you the future!https://static.igem.org/peertube/streaming-playlists/hls/e044d3e5-a993-4493-9a78-6020e0be6c21/0723b91b-18ec-4b40-90e3-c67ede5bb953-master.m3u8https://video.igem.org/videos/embed/tGewgjQvbMTZ4omkAUk7ZF1761042024-03-12T08:15:40.292ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/48ABBkBPH2LV7iYEPVuM2mhttps://video.igem.org/lazy-static/thumbnails/9f555cc1-46e4-40cf-b6c1-d91cc0ef843d.jpgAnd the Finalists Are... - Startup Showcase Finalists AnnouncementAnticipation reaches its peak as we announce the finalists who will compete for the coveted $10,000 cash prize in the Startup Showcase. The moment we've all been waiting for is here, as we unveil the teams that have demonstrated outstanding innovation and potential.https://static.igem.org/peertube/streaming-playlists/hls/195af437-cda8-4cd1-9adb-e7b13012a332/34aaec03-f3ad-4597-9cfe-706c8c21fd76-master.m3u8https://video.igem.org/videos/embed/48ABBkBPH2LV7iYEPVuM2m2252082024-03-12T09:09:53.173ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/aQ9pnJNhmBD4eLjfbmzTkyhttps://video.igem.org/lazy-static/thumbnails/4a3d02ff-cc8f-4e79-b64f-63b227b1a65f.jpgCrossroads of Biosecurity: A Multinational PerspectiveBiosecurity, with its complex dimensions, is vital for safeguarding our world. This session is designed to shed light on the varied strategies employed by organizations to address this crucial field. Whether you're a student member at the Jamboree or a seasoned professional, this session could offer valuable insights.https://static.igem.org/peertube/streaming-playlists/hls/4f9b209f-fa00-4559-8f18-b1f30034d5c2/f5d24185-923d-4358-b1a9-eb6183d6afc4-master.m3u8https://video.igem.org/videos/embed/aQ9pnJNhmBD4eLjfbmzTky1960042024-03-12T09:25:36.316ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/1PcF8FuXc71raov4SXi8Mwhttps://video.igem.org/lazy-static/thumbnails/5e6f3248-1290-40cb-ba14-58f94cfb7e42.jpgINTERPOL’s Role in BiosecurityAs the largest international police organization, INTERPOL supports law enforcement across the world in preventing and investigating transnational criminal activities in many crime areas. One of them involves the misappropriation and misuse of Chemical, Biological, Radiological, Nuclear and Explosive materials (CBRNE) by non-state actors. INTERPOL supports its membership through the development of tools and resources, implementing capacity building activities, in facilitating secured information sharing between countries and providing operational support. In the area of biosecurity, these different aspects are focusing on engagements with national, regional and international stakeholders in the law enforcement, security and health-related sectors.https://static.igem.org/peertube/streaming-playlists/hls/069726e8-02df-4377-9337-537f941e91e4/8794910d-7fac-4861-aefb-3ea7a3043a54-master.m3u8https://video.igem.org/videos/embed/1PcF8FuXc71raov4SXi8Mw8430142024-03-12T09:34:46.597ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/oUPdQbSNYbqRrSt8Ua8sN2https://video.igem.org/lazy-static/thumbnails/0a15b049-c73e-4cc9-be7b-fc0c6d1459cc.jpgHuman Practices: Exploration & ApplicationThis session will be a panel talk about the development of human practices in iGEM, mainly introducing the tools developed by HP committee for the implementation of Human Practices in iGEM teams project, the psychological factors which will influence the culture of responsibility in laboratories. We are also looking forward to hearing the stories and feedback from iGEM teams on human practices.https://static.igem.org/peertube/streaming-playlists/hls/b988d3e2-4253-4242-bf82-b46182a1d87d/e31c1c1d-9fcb-4d0b-919d-f4c894d29f91-master.m3u8https://video.igem.org/videos/embed/oUPdQbSNYbqRrSt8Ua8sN29710252024-03-12T10:10:22.386ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/5oG8LA5H5Yki1rJM4gcjYYhttps://video.igem.org/lazy-static/thumbnails/024b561f-b142-470b-9076-4260e864dd16.jpgProject Grow: An Interactive Video Game DemoDive into 'Project Grow'! Join us for an exclusive sneak peek into our thrilling video game adventure set in a vibrant alien ecosystem. Engineer organisms, explore biotech wonders, and shape the game's future with your insights. Be part of this unique blend of science and entertainment – your adventure begins here!https://static.igem.org/peertube/streaming-playlists/hls/238fa6a8-0cbd-4d84-baa3-d11c482c0538/317dc16e-8d9a-41e2-b0bb-cb1fb8f1e64a-master.m3u8https://video.igem.org/videos/embed/5oG8LA5H5Yki1rJM4gcjYY1772052024-03-12T10:42:08.235ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/gQL4vWGFrE3GNdzSmN9CkWhttps://video.igem.org/lazy-static/thumbnails/a86c34f7-6cf3-49a3-aa37-174eba5ea184.jpgFrom Complexity to Clarity: The Art of Storytelling in ScienceJoin our interactive session and embark on a journey to become a proficient science communicator in the dynamic realm of synthetic biology. Discover the art of storytelling as a potent tool to demystify intricate synbio concepts and captivate diverse audiences. By attending, you'll gain a deeper appreciation for storytelling's role in synbio communication and practical storytelling skills applicable to various synbio domains. Elevate your synbio communication game with us.https://static.igem.org/peertube/streaming-playlists/hls/8047ef26-bd73-4035-8986-836ec71c9334/4c72aae6-e2de-49e3-9b90-33506241fc95-master.m3u8https://video.igem.org/videos/embed/gQL4vWGFrE3GNdzSmN9CkW9260102024-03-12T11:04:26.418ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/6xm1zjyJM5uqNN4dac3fhghttps://video.igem.org/lazy-static/thumbnails/7c4c7164-f10e-4357-8268-afdcede7eeef.jpgHow Do We Improve Engineering in iGEM?The iGEM Engineering Committee's mission is to educate iGEM teams in synthetic biology engineering practices, promote accessible measurement and calibration protocols, and foster a community for developing predictable biological devices. Learn more about their work, how they promote team project success, and how you can join them!https://static.igem.org/peertube/streaming-playlists/hls/2cde14eb-1390-445c-8cb8-8a34cdc146c7/0757c152-c90b-4ef2-8614-26a489af2054-master.m3u8https://video.igem.org/videos/embed/6xm1zjyJM5uqNN4dac3fhg919082024-03-12T11:23:19.300ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/cZ5qZZ7UCNV8ArL7Y3mXEJhttps://video.igem.org/lazy-static/thumbnails/bfa20505-9e1a-4207-bf73-ec53e4f568fc.jpgBuilding an Open, Sustainable and Equitable Bioeconomy: From Parts to PartnershipsSynthetic biology could transform our future, but the infrastructure and supply chains needed to build with biology are not evenly distributed. Open Bioeconomy Lab focuses on one key constraint: the enzymes that are critical to almost every step in molecular bioengineering. We produced open source DNA toolkits for local reagent production, whose parts have taken on a life of their own - such as getting included in the iGEM collection! I will introduce the toolkits but more importantly the amazing people that are using them around the world, and the types of partnerships that are key to building an open, sustainable and equitable global bioeconomy.https://static.igem.org/peertube/streaming-playlists/hls/610ca69f-5bb1-471a-907f-f18d5cb2c042/c4ea623f-06b6-4fc0-a6ed-e25c18757607-master.m3u8https://video.igem.org/videos/embed/cZ5qZZ7UCNV8ArL7Y3mXEJ9670142024-03-12T11:40:16.408ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/q6Caugmq9HF1xpcvTd55MEhttps://video.igem.org/lazy-static/thumbnails/f90a23fc-c96a-4558-a82a-0593b6b470ae.jpgBuilding Software Tools to Improve the Distribution and Boost ProductivityThe iGEM Engineering Committee's Software thrust has been developing and providing support for software tools that enabled the collaborative design of the iGEM Distribution. From SBOL to Github actions, find out how this project started, where they are now, and what the future holds.https://static.igem.org/peertube/streaming-playlists/hls/c3245552-204f-4202-a79e-bbcd5f4180e8/dfe65345-338f-48c3-a402-ec5d493c8de0-master.m3u8https://video.igem.org/videos/embed/q6Caugmq9HF1xpcvTd55ME944062024-03-12T12:00:12.790ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/wTF72VpfymZzoX2Zg5ZbPkhttps://video.igem.org/lazy-static/thumbnails/f16f982e-a273-468b-8292-5febb6a9cd8e.jpgInnovating Beyond Boundaries: Rethinking Intellectual Property in SynBioDive deep into the complex terrain of synthetic biology intellectual property. Engage in thought-provoking discussions about how innovators can navigate this landscape to protect their creations and foster future innovations in the field.https://static.igem.org/peertube/streaming-playlists/hls/fa2930d6-cfbe-472f-bd47-a126fc74a769/dd6464de-b781-4650-8862-67ef8b6640d2-master.m3u8https://video.igem.org/videos/embed/wTF72VpfymZzoX2Zg5ZbPk29770102024-03-12T12:55:15.714ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/8zfpwGHWZYukoXASjpcYhhhttps://video.igem.org/lazy-static/thumbnails/8a83565f-dc51-48ba-97f2-1c5f2d5429f1.jpgYouth Voices in Global Security: A Dialogue on Biosafety, Biosecurity, Disarmament & PolicyJoin us for a session featuring iGEMers from diverse backgrounds! This engaging dialogue will explore critical topics such as biosafety, biosecurity, disarmament, and policy in the context of global security. Gain valuable insights into the perspectives and contributions of young professionals shaping the future of biosecurity and international policy. Don't miss this opportunity to hear Youth Voices in Global Security!https://static.igem.org/peertube/streaming-playlists/hls/3d546491-77cb-46fa-bc54-27f306e7d178/e19936d6-c2a4-481a-b996-ce37c264b9ec-master.m3u8https://video.igem.org/videos/embed/8zfpwGHWZYukoXASjpcYhh1581042024-03-12T13:20:44.942ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/wMaLTU9fbvtr9oAsdByeUhhttps://video.igem.org/lazy-static/thumbnails/db83c07c-edc7-4f73-9a1e-f106a4dd0c50.jpgHigh School in iGEM: History, Meaning and Future ExplorationHigh School in iGEM: History, Meaning and Future Explorationhttps://static.igem.org/peertube/streaming-playlists/hls/f940a725-d56d-4ea0-9e32-44dea5e921dc/13167892-df81-4838-a5b8-91ebd2559da0-master.m3u8https://video.igem.org/videos/embed/wMaLTU9fbvtr9oAsdByeUh11320152024-03-12T13:42:44.783ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/j6cScwzo2Qz5rnWD6SKFfDhttps://video.igem.org/lazy-static/thumbnails/2a530cc7-bef4-4608-a8e2-fc9b3247784e.jpgThe DNA Frontier: Implications & Applications of Screening and SynthesisDiscover the vital role of nucleic acid screening in ensuring biosecurity within the realm of synthetic biology. Join us for an engaging conversation with a diverse panel of experts hailing from academia, industry, and regulatory bodies. We will delve into crucial topics such as the importance of screening prior to synthesis orders, the game-changing impact of DNA screening tools on enhancing biosecurity, and the challenges and opportunities in broadening screening beyond export control lists while advancing scientific progress. We will discuss international collaboration efforts and standardization in biosecurity practices and explore emerging technologies poised to enhance safety.https://static.igem.org/peertube/streaming-playlists/hls/927e86f0-1bf4-4787-ba35-daab94f5d705/73e32e53-8f4f-44be-817b-7c046aee926a-master.m3u8https://video.igem.org/videos/embed/j6cScwzo2Qz5rnWD6SKFfD27080212024-03-12T14:40:13.197ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/wQXjSvEynSAK29aNTRUy5uhttps://video.igem.org/lazy-static/thumbnails/a8fbdd7f-a8f4-462f-80f0-9a9321b120d5.jpgStartup Showcase Track 3 - Health, MedTech & DiagnosticsDiscover how our Startups are driving advancements in healthcare, medical technology, and diagnostics. Our top teams showcase their innovations that have the potential to save lives. Join us in celebrating the innovations that hold the promise of a healthier future for all.https://static.igem.org/peertube/streaming-playlists/hls/f9c7f4cb-1d47-4cfc-87a7-0f2ec83ec094/94d8afbf-1907-4105-b125-3a2f01264f80-master.m3u8https://video.igem.org/videos/embed/wQXjSvEynSAK29aNTRUy5u47350462024-03-12T16:40:14.506ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/ouG6R7oDVNeN4QYFvULMVihttps://video.igem.org/lazy-static/thumbnails/e17236a4-d3b3-470e-9446-d55e4d373306.jpgFundraising 360: From Seed to Series, Unveiling Startup FinanceTake a comprehensive journey into the vast universe of venture capital and startup financing. Gain a profound understanding of the intricacies, opportunities, and challenges that define the world of startup financing and investment.https://static.igem.org/peertube/streaming-playlists/hls/b62a96cd-e6ba-4289-9805-761965981267/c39b6d55-6bbe-4cfa-8e00-e913591006e4-master.m3u8https://video.igem.org/videos/embed/ouG6R7oDVNeN4QYFvULMVi19430402024-03-12T17:36:23.654ZYES2023 Grand JamboreeNOhttps://video.igem.org/w/9orTaCrMuocEGxQnhqopgrhttps://video.igem.org/lazy-static/thumbnails/4419b47b-325a-4fc2-90b7-37517ca98952.jpgHongKong-PuiChing: Plaza Presentation (2023)HongKong-PuiChing: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/43eb6c34-7567-4265-a7b2-08d4d38b9eeb/39b98195-9abb-4b1f-8136-286fd393d6eb-master.m3u8https://video.igem.org/videos/embed/9orTaCrMuocEGxQnhqopgr975052024-03-11T16:14:26.233ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/rG1HDkFuGZQ6PDrJLSt45Ahttps://video.igem.org/lazy-static/thumbnails/ed7af84f-15b2-4be4-ab4d-782b5cb6238e.jpgGreatBay-SCIE: Plaza Presentation (2023)GreatBay-SCIE: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/d00aa8e7-6206-4d8d-8b85-b7050438eb4e/d3df9550-19af-4418-9e84-2f54ffa61f31-master.m3u8https://video.igem.org/videos/embed/rG1HDkFuGZQ6PDrJLSt45A10470262024-03-11T16:36:49.204ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/roj36TvkKwCY4ykFjbeE4Phttps://video.igem.org/lazy-static/thumbnails/adc303fd-4ade-4e3d-bce6-bee1617bf471.jpgSquirrel-Guangzhou: Plaza Presentation (2023)Squirrel-Guangzhou: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/cd91f1d5-73f7-4563-ae4f-1968641eb95d/e6a27d23-2faf-43d0-a318-87f5a1b27f1a-master.m3u8https://video.igem.org/videos/embed/roj36TvkKwCY4ykFjbeE4P792042024-03-11T17:33:23.824ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/kGqoeCVz6jN4ZC9HDRQnaVhttps://video.igem.org/lazy-static/thumbnails/9847558e-6055-4886-82a7-6cd9849d441e.jpgJapan-United: Plaza Presentation (2023)Japan-United: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/9f826980-d038-436a-85ed-166ba60b3c23/14fb706f-91ca-475d-b8b3-321dfdd7a817-master.m3u8https://video.igem.org/videos/embed/kGqoeCVz6jN4ZC9HDRQnaV91304632024-03-11T18:13:19.478ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/kXa3FsX9b1mstkRe3YRFBphttps://video.igem.org/lazy-static/thumbnails/74e5a25f-8133-4895-b2b9-8da28482671f.jpgSquirrel-Beijing-I: Plaza Presentation (2023)Squirrel-Beijing-I: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/a1911de7-be7e-48a4-bb2d-a3be89851da9/ceaddcb8-a581-4e7f-966f-0e48c75b0886-master.m3u8https://video.igem.org/videos/embed/kXa3FsX9b1mstkRe3YRFBp917022024-03-11T18:25:58.794ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/pYPH6Lz5ePBMsuzha2YB8Nhttps://video.igem.org/lazy-static/thumbnails/22070833-290a-4fef-b2a5-ce29493ec561.jpgSHSBNU-China: Plaza Presentation (2023)SHSBNU-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/c2313de5-0a20-450b-8863-fe515e0950a0/ca435de4-03b8-4bb5-9b34-02c36dc1fd0c-master.m3u8https://video.igem.org/videos/embed/pYPH6Lz5ePBMsuzha2YB8N806092024-03-11T19:06:12.485ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/d6f2AicrTm7nrCuiHmavRahttps://video.igem.org/lazy-static/thumbnails/85e123de-a169-4c04-8fba-e260778c10a1.jpgShanghai-BioX: Plaza Presentation (2023)Shanghai-BioX: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/61e90709-3e36-4875-8ede-168d5bcb71bf/5e0ae642-0a23-41d1-9b4f-6ca887fa2282-master.m3u8https://video.igem.org/videos/embed/d6f2AicrTm7nrCuiHmavRa914032024-03-11T21:45:32.059ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/wtuQureThELNmQVoBk1DRvhttps://video.igem.org/lazy-static/thumbnails/2fbd1e82-e284-4c39-867a-9c629da1b28f.jpgRDFZ-CHINA: Plaza Presentation (2023)RDFZ-CHINA: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/f6c9032e-9e9e-4d57-a37f-fbd2ee36647b/175ec624-ffa4-4bd6-94e0-df6d259fbaf5-master.m3u8https://video.igem.org/videos/embed/wtuQureThELNmQVoBk1DRv839092024-03-12T00:15:33.435ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/vUrma6inEDT6QSxNi1XXqkhttps://video.igem.org/lazy-static/thumbnails/9e62350b-a5ed-43a0-9ac3-4397ff62600d.jpgSquirrel-CHN: Plaza Presentation (2023)Squirrel-CHN: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/f22b5172-49b9-4f61-a928-2c2dd0c9f977/75f74b23-febe-47b1-b9d4-4ef9eab43764-master.m3u8https://video.igem.org/videos/embed/vUrma6inEDT6QSxNi1XXqk899012024-03-12T04:24:21.304ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/xAhpsdnGRvMM3eUr3Uax7Bhttps://video.igem.org/lazy-static/thumbnails/b4c85c6c-2521-42c5-8570-27caadadbcae.jpgHKSSC: Plaza Presentation (2023)HKSSC: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/ffd4b238-94fb-497f-a3e8-03a806d64203/027c26b2-1dcb-41a0-a44b-2eb5c3cbc31a-master.m3u8https://video.igem.org/videos/embed/xAhpsdnGRvMM3eUr3Uax7B821012024-03-12T05:21:20.682ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/ibLTktjJ8NB192bv3pQg89https://video.igem.org/lazy-static/thumbnails/1e2781b5-ad7c-4f22-bfe8-65be3d15795e.jpgNYCEmpireState: Plaza Presentation (2023)NYCEmpireState: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/8b2c74d2-feff-430d-a805-8db30e904d2a/45143941-e79a-42f3-8fe2-45de0967ceb0-master.m3u8https://video.igem.org/videos/embed/ibLTktjJ8NB192bv3pQg89897052024-03-12T05:39:17.559ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/iHJBviUuWg3XQ8GmaQQPumhttps://video.igem.org/lazy-static/thumbnails/16a832f0-91aa-46f0-8cc5-464abfbc4389.jpgNYCU-Formosa: Plaza Presentation (2023)NYCU-Formosa: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/8f7f1cca-a1d2-4816-a579-7ae6c575d128/3fe00ee6-2a07-41e8-8b89-4f2c2a0d0c18-master.m3u8https://video.igem.org/videos/embed/iHJBviUuWg3XQ8GmaQQPum7990122024-03-12T09:49:40.092ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/wStyUS3nJSufHL8qFRjXNJhttps://video.igem.org/lazy-static/thumbnails/34726baf-23f9-4a03-9daf-1a9f7f45160d.jpgNYU-Abu-Dhabi: Plaza Presentation (2023)NYU-Abu-Dhabi: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/f9fe565b-bb47-4020-b43a-28741f8d2d12/5acb7f95-0d5b-4690-83d0-81aac2ed42a1-master.m3u8https://video.igem.org/videos/embed/wStyUS3nJSufHL8qFRjXNJ835062024-03-12T14:51:11.185ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/hebNMgyB3genbjwpmj4vW9https://video.igem.org/lazy-static/thumbnails/f6b26556-acd7-4024-86b8-09b9ef06de8e.jpgBIT-China: Plaza Presentation (2023)BIT-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/83698c1f-12b7-4bf8-9960-462b5dfec030/c6a340a0-a29c-4efc-968c-adb662a8af0e-master.m3u8https://video.igem.org/videos/embed/hebNMgyB3genbjwpmj4vW91044082024-03-12T17:57:52.594ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/umEJfoaf5FwzfFPPbmyQ2khttps://video.igem.org/lazy-static/thumbnails/1b16d8e3-0161-4316-b009-3e4b4ed46b0c.jpgLeiden: Plaza Presentation (2023)Leiden: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/e5a2a007-5d0a-4bc1-85b7-059bed69a3cd/0820a97d-dcf3-4c6f-9fea-feeb510a941a-master.m3u8https://video.igem.org/videos/embed/umEJfoaf5FwzfFPPbmyQ2k7100732024-03-12T18:10:29.895ZYES2023 Plaza 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PresentationsNOhttps://video.igem.org/w/4jN14wgqRqfC22B57xYY2Bhttps://video.igem.org/lazy-static/thumbnails/8a9991dd-0c8e-43e1-98ce-5abdeab3168b.jpgUNILA-LatAm: Plaza Presentation (2023)UNILA-LatAm: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/1aeb272a-8263-4ed3-a769-8c639e70b32d/e3428d8a-4572-4756-b475-b382fc85a7d2-master.m3u8https://video.igem.org/videos/embed/4jN14wgqRqfC22B57xYY2B868052024-03-13T07:10:36.897ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/nxEPKVChkMgAZE9mJZFCQ4https://video.igem.org/lazy-static/thumbnails/148e58cf-b02d-4a4a-bcb1-4937f09af5fa.jpgUManitoba: Plaza Presentation (2023)UManitoba: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/ae7be4fe-0b1c-4e12-987d-4993b1ab85db/9da0f36a-4bf0-4661-bd49-e14f445350d9-master.m3u8https://video.igem.org/videos/embed/nxEPKVChkMgAZE9mJZFCQ4780022024-03-13T10:42:26.469ZYES2023 Plaza 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PresentationsNOhttps://video.igem.org/w/7zTJdtoU1A4pRcu7waxEvuhttps://video.igem.org/lazy-static/thumbnails/0f51d721-39f8-4ff3-ae59-130ebffc1fe5.jpgULaval: Plaza Presentation (2023)ULaval: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/35524139-bf18-4074-b238-e0b8f304c7ae/0bb542dd-2588-47d3-aa47-4109fa6485c2-master.m3u8https://video.igem.org/videos/embed/7zTJdtoU1A4pRcu7waxEvu829092024-03-15T06:10:24.481ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/wMKwqUn4SXLEPSeSRYwRLzhttps://video.igem.org/lazy-static/thumbnails/a9d42000-360f-41e6-afc3-59b4a057b1f4.jpgTsinghua: Plaza Presentation (2023)Tsinghua: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/f95573d4-b917-4074-9ff9-8d36b1d31ecd/a5527f00-c5b4-4727-b2fe-aa29cfa96d53-master.m3u8https://video.igem.org/videos/embed/wMKwqUn4SXLEPSeSRYwRLz9090242024-03-15T06:25:47.398ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/rLS3kYfz6N7Uz4nXyu7jKnhttps://video.igem.org/lazy-static/thumbnails/46e900d0-42b6-4e30-b58f-7ac74d42ba9c.jpgBielefeld-CeBiTec: Plaza Presentation (2023)Bielefeld-CeBiTec: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/d0b807e7-fe94-486a-b8e9-eea49fd4c64b/a76fe1dc-7fa1-4d05-ad11-0de540d2398e-master.m3u8https://video.igem.org/videos/embed/rLS3kYfz6N7Uz4nXyu7jKn894072024-03-15T06:41:38.348ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/mn1jTShoup8UZr8VnTg97chttps://video.igem.org/lazy-static/thumbnails/6f599462-731c-4d33-af41-025b348b80f3.jpgPekingHSC: Plaza Presentation (2023)PekingHSC: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/a4e597d7-434a-47fb-8837-81fdf04342ef/3d2729dd-e21a-41e7-87fc-bcb3f8c666b9-master.m3u8https://video.igem.org/videos/embed/mn1jTShoup8UZr8VnTg97c8960172024-03-15T06:59:51.104ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/vDHYsydkJRcfiQD2xugkC1https://video.igem.org/lazy-static/thumbnails/9646ba41-cccf-4be5-89af-21178c7332d0.jpgBNUZH-China: Plaza Presentation (2023)BNUZH-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/f01d685c-a15c-4b59-87ef-f904ba71eb0c/c8bdbfbf-7584-463c-acbf-8d576e85c8b7-master.m3u8https://video.igem.org/videos/embed/vDHYsydkJRcfiQD2xugkC17050332024-03-15T07:11:16.372ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/iVvE7rdFDQ21xNWWqzSKaDhttps://video.igem.org/lazy-static/thumbnails/ef5ec974-b589-456e-9313-2175c76b0b4a.jpgBioplus-China: Plaza Presentation (2023)Bioplus-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/91240dc9-a309-4ce7-8c50-46bb029f2d9b/19a92142-9956-4912-9f10-870969975541-master.m3u8https://video.igem.org/videos/embed/iVvE7rdFDQ21xNWWqzSKaD2580122024-03-15T07:15:55.156ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/h5bcg9URfFtnb7WgdzZh4hhttps://video.igem.org/lazy-static/thumbnails/1770b03c-a6a7-4297-98ab-e99afcb1aa3c.jpgSCU-BSE-China: Plaza Presentation (2023)SCU-BSE-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/822779dc-0e44-44b5-b279-663e50463336/4a2f5804-8b20-4b13-9e3e-a47289c6b72f-master.m3u8https://video.igem.org/videos/embed/h5bcg9URfFtnb7WgdzZh4h6550132024-03-15T07:29:37.892ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/5hXc78dBa6jgotCSBniipthttps://video.igem.org/lazy-static/thumbnails/8554a459-3f2a-44e3-87b0-f397248bfbf6.jpgJLU-China: Plaza Presentation (2023)JLU-China: Plaza Presentation (2023)https://static.igem.org/peertube/streaming-playlists/hls/22c277c9-4d92-4fbf-93a2-a5f702840e0d/9deb0355-d3d8-421f-95b4-ded6dc150035-master.m3u8https://video.igem.org/videos/embed/5hXc78dBa6jgotCSBniipt8760252024-03-15T07:44:32.139ZYES2023 Plaza PresentationsNOhttps://video.igem.org/w/nbia9YtVvDqPwaHwBSVRPZhttps://video.igem.org/lazy-static/thumbnails/8bfbcd67-351e-49b5-a2c2-09c550da5ef0.jpgSynBio In Space - Launch EventThe SynBio in Space project launched on March 15, 2024 and featured the Project Heads and Guest Speakers who began their Space Synbio journeys at the iGEM Competition and are now working in space synthetic biology research and entrepreneurship. Learn more about the project: https://community.igem.org/projects/synbio-in-space https://static.igem.org/peertube/streaming-playlists/hls/ab7fec67-8198-4815-b9b5-8330f986460b/df236670-290a-49e4-b0ff-db105e7a848e-master.m3u8https://video.igem.org/videos/embed/nbia9YtVvDqPwaHwBSVRPZ48090782024-03-19T19:38:58.667ZYESiGEM CommunityNOhttps://video.igem.org/w/vwPtgGcdjRTWPnXrzX6AvNhttps://video.igem.org/lazy-static/thumbnails/b8097622-734a-434e-81af-692d0ead786c.jpgJudging at iGEM (2023) [English]Nancy Burgess , the Director of iGEM Judging, talks about the history of judging and the new developments coming up in the 2023 Grand Jamboree.https://static.igem.org/peertube/streaming-playlists/hls/ef2696ba-36ea-430f-a6ff-fe405c951920/1de67048-ad9d-4a4b-a2a2-d6452c61dfe2-master.m3u8https://video.igem.org/videos/embed/vwPtgGcdjRTWPnXrzX6AvN163052023-09-16T17:37:01.104ZYESiGEM FoundationNOhttps://video.igem.org/w/eKtpR4kdKYsGbNs8Yz8vFHhttps://video.igem.org/lazy-static/thumbnails/835a28bf-576d-495b-bef2-8b6984b634d6.jpgiGEM in Space: Meet the Space NetworkiGEM in Space: Meet the Space Networkhttps://static.igem.org/peertube/streaming-playlists/hls/6f58ad6a-3598-400c-b842-15348efb05fb/08721234-c1e0-44a4-9701-86571766ba39-master.m3u8https://video.igem.org/videos/embed/eKtpR4kdKYsGbNs8Yz8vFH41900832024-04-03T19:53:25.971ZYESiGEM FoundationNOhttps://video.igem.org/w/9GDQyPDR93zMTRtaYf18Qohttps://video.igem.org/lazy-static/thumbnails/93e16514-958a-42cb-9b19-75ffcb541851.jpgBridgeBio Webinars - Conversation with Dr. Tae Seok MoonThe conversation with Dr. Tae Seok Moon, Professor, SynBYSS Chair & EBRC Council Member, delved into the world of programmable organisms with a talk on “Systems and synthetic biology: constructing smart and programmable microbes to address global problems”. Learn more about the BridgeBio project: https://community.igem.org/projects/bridgebio https://static.igem.org/peertube/streaming-playlists/hls/46762d9c-9d30-4ef1-90f3-cb43ed18e792/a258856e-cec9-404c-9efa-ea7f0b4ed725-master.m3u8https://video.igem.org/videos/embed/9GDQyPDR93zMTRtaYf18Qo46920362024-04-05T18:28:01.042ZYESiGEM CommunityNOhttps://video.igem.org/w/jXwY8pLGnhZJu7aYr9d7RBhttps://video.igem.org/lazy-static/thumbnails/30168758-6750-484b-913a-96884bbee7c6.jpgDemystifying the Publication Process - iGEM CommunityThe project aims to create an interactive guide for iGEM teams seeking to publish their research. We will create high-quality videos to show the steps of the publication process, including editing, peer review, and submission. We will also create a comprehensive handbook to provide guidance to teams on how to navigate publication. Learn more: https://community.igem.org/projects/demystifying-the-publication-process https://static.igem.org/peertube/streaming-playlists/hls/99857cde-2f96-4259-b8f7-5fcd90b22395/fdeeca20-f5d7-42f3-a0e1-83f0c4c471bd-master.m3u8https://video.igem.org/videos/embed/jXwY8pLGnhZJu7aYr9d7RB970432024-04-15T23:42:11.505ZYESiGEM CommunityNOhttps://video.igem.org/w/ttGUu6hs8ji4c59SaAtyWohttps://video.igem.org/lazy-static/thumbnails/dbf6beff-93f6-4940-a155-ff029ba4d42e.jpg[Podcast] SciComm Made Easy - S1E6: Charting New Paths in Science Communication with Santiago GislerEmbark on Episode 6 of SciComm Made Easy Podcast! Join us as we explore new paths in science communication with Santiago Gisler. Delve into Santiago's journey and gain insights into navigating the dynamic landscape of science communication. Discover valuable strategies and gain inspiration for your own endeavors in this enlightening episode. Tune in now!https://static.igem.org/peertube/streaming-playlists/hls/de8508be-250d-473b-9598-2f975e8d144a/16d22a3c-c420-438e-b5f8-04d05289d9b7-master.m3u8https://video.igem.org/videos/embed/ttGUu6hs8ji4c59SaAtyWo5445052024-04-24T16:48:51.375ZPodcastScience CommunicationYESiGEM CommunityNOhttps://video.igem.org/w/wvnMXqHx2jiWTTypvKqC2Yhttps://video.igem.org/lazy-static/thumbnails/e8275c13-afe1-41eb-bbe2-38fcb757d467.jpgThe iGEM Judging ExperienceThe iGEM Judging Experiencehttps://static.igem.org/peertube/streaming-playlists/hls/f70c28bd-1808-44ac-a801-f59e97e1d2d2/b21e8e71-2ddc-430f-9a52-ea316f45c18d-master.m3u8https://video.igem.org/videos/embed/wvnMXqHx2jiWTTypvKqC2Y13502792024-05-21T15:53:31.109ZYESiGEM FoundationNOhttps://video.igem.org/w/aX7v5y26FxXxThtVAA8wanhttps://video.igem.org/lazy-static/thumbnails/5d78659d-184e-4f43-aca1-1cca67cb0812.jpgWhat it’s like to be an iGEM JudgeWhat it’s like to be an iGEM Judgehttps://static.igem.org/peertube/streaming-playlists/hls/50942971-b299-4dd6-9b9e-a260c9fb478f/c16577ba-6d96-4dc5-b175-6d3aada652a9-master.m3u8https://video.igem.org/videos/embed/aX7v5y26FxXxThtVAA8wan10201952024-05-21T15:53:32.715ZYESiGEM FoundationNOhttps://video.igem.org/w/nCUaSjYUq2rvyPp2rct3wXhttps://video.igem.org/lazy-static/thumbnails/455b3a61-f15a-4816-9e30-ac869151eab1.jpgAsimov - Create an Organization WorkspaceAsimov - Create an Organization Workspacehttps://static.igem.org/peertube/streaming-playlists/hls/af36d6ac-4c13-4cf3-91bd-cced08060293/e4f7355c-053c-4b18-9680-fd4490072c54-master.m3u8https://video.igem.org/videos/embed/nCUaSjYUq2rvyPp2rct3wX34092024-05-29T12:40:58.108ZYESiGEM FoundationNOhttps://video.igem.org/w/nC3jiMmLdzn4kzavpB9suzhttps://video.igem.org/lazy-static/thumbnails/1cb5055f-f32e-4fd6-b04d-49501e5bc10e.jpgAsimov - Lexical vs Semantic SearchAsimov - Lexical vs Semantic Searchhttps://static.igem.org/peertube/streaming-playlists/hls/af181d58-e9bf-4585-a467-202420848eb1/2730ffd4-82ac-4f25-9bf9-1e8f5f2d68d1-master.m3u8https://video.igem.org/videos/embed/nC3jiMmLdzn4kzavpB9suz340102024-05-29T12:45:20.980ZYESiGEM FoundationNOhttps://video.igem.org/w/p5ZTa4Bn36QNQiSrbRdQdqhttps://video.igem.org/lazy-static/thumbnails/bbe2a6f6-dd44-4d03-8514-d4f3c51eb17b.jpgAsimov - Using the Distribution Kit Collection in KernelAsimov - Using the Distribution Kit Collection in Kernelhttps://static.igem.org/peertube/streaming-playlists/hls/baf4d5d7-0678-49d0-b67f-bc90fd4b4e00/d3c71de6-dada-4bcf-887a-9fb6dd481d51-master.m3u8https://video.igem.org/videos/embed/p5ZTa4Bn36QNQiSrbRdQdq340222024-05-29T12:46:27.150ZYESiGEM FoundationNOhttps://video.igem.org/w/a5znQuVjWdXcwjXR41XbHLhttps://video.igem.org/lazy-static/thumbnails/957fc97a-2a36-4d9a-b761-2d8147fe5c71.jpgAsimov - Drag & Drop Genetic Design in KernelAsimov - Drag & Drop Genetic Design in Kernelhttps://static.igem.org/peertube/streaming-playlists/hls/4985cac1-2dcb-4271-bef4-efae5708a216/04fbaf10-9340-4e8b-be84-f39750cfc125-master.m3u8https://video.igem.org/videos/embed/a5znQuVjWdXcwjXR41XbHL340332024-05-29T12:50:18.607ZYESiGEM FoundationNOhttps://video.igem.org/w/o6iuuNYFd3tnWFJ6ZbQsP8https://video.igem.org/lazy-static/thumbnails/a4cf839c-7f56-44c4-b773-89540e9a4d69.jpgBiocreators Open Talk #1 with Edson Reyna and Carlos Silveira - iGEM Arts GalleryThis year, we are inviting speakers from the biocreative community on topics such as bioart, biofuturism, biodesign, bioarchitecture, and other creative fields integrating biology and creativity. The first online session took place on Saturday, June 1st at 15:00 UTC, and was presented by Edson Reyna and Carlos Silveira. Learn more about the project: https://community.igem.org/projects/igem-arts-galleryhttps://static.igem.org/peertube/streaming-playlists/hls/b2e68c7c-e016-447c-9809-7796c9160255/ef0d2e29-3e16-42ff-956d-cfbf736fef36-master.m3u8https://video.igem.org/videos/embed/o6iuuNYFd3tnWFJ6ZbQsP879920312024-06-06T10:51:52.781ZBioArtYESiGEM CommunityNOhttps://video.igem.org/w/t8yQfLxyoRyLDtgsdKA489https://video.igem.org/lazy-static/thumbnails/d90d1798-1748-4651-9873-c290c1ffc222.jpgModeling and Analysis of Synbio Systems with SimBiology and MATLABMathematical modeling guides the rational design of genetic modifications and enables synthetic biologists to better analyze and predict system behavior prior to fabrication. Modeling is an important part of synthetic biology and the iGEM Competition. This workshop, presented by MathWorks, provides iGEM teams with an introduction to modeling, simulation and analysis with MATLAB and SimBiology using an example from synthetic biology literature.https://static.igem.org/peertube/streaming-playlists/hls/dbb52f02-a29b-4d45-86f2-6f876ba7f48a/3a640778-77c2-46ef-906b-7e8bfab3e655-master.m3u8https://video.igem.org/videos/embed/t8yQfLxyoRyLDtgsdKA489408701252024-06-07T21:12:14.276ZModelingTechnologyYESiGEM FoundationNOhttps://video.igem.org/w/snEEDcWMm3NvD8Tp9LyFxPhttps://video.igem.org/lazy-static/thumbnails/ffa49b06-ad06-4770-ac9a-9e032ce0c2b7.jpgIntroduction to JudgingIntroduction to Judginghttps://static.igem.org/peertube/streaming-playlists/hls/d5940da1-467b-423d-88eb-20230e36ccb1/3eaa3e5a-c438-475e-b64c-befdc4db3f3c-master.m3u8https://video.igem.org/videos/embed/snEEDcWMm3NvD8Tp9LyFxP5100972024-06-14T18:33:29.038ZJudgingiGEM CompetitionYESiGEM FoundationNOhttps://video.igem.org/w/63TK2cNPMLdcrzxVh8K5yGhttps://video.igem.org/lazy-static/thumbnails/7cb9852b-d5a1-47ed-837e-a43b697e3a03.jpgSynthAfrica Launch Event - iGEM CommunityTogether with the iGEM Ambassadors to Africa, we hosted our launch event to address knowledge gaps of synthetic biology in Africa. By facilitating knowledge exchange and collaboration, we aim to equip individuals and communities with the necessary skills and insights to leverage synthetic biology for sustainable development in Africa! Learn more about the project: https://community.igem.org/projects/synthafrica https://static.igem.org/peertube/streaming-playlists/hls/28e5115c-8bd6-4635-8279-8d37172d1de0/8c4114e3-40c6-4d04-a31f-353fdd6aefa6-master.m3u8https://video.igem.org/videos/embed/63TK2cNPMLdcrzxVh8K5yG57800212024-06-24T10:24:49.219ZSynBioEducationAfricaYESiGEM CommunityNOhttps://video.igem.org/w/bSSn4HS1ZgQTtzArvVH7LDhttps://video.igem.org/lazy-static/thumbnails/e91af4cc-fd98-4d48-a7a8-676510272ef3.jpgSynergizing Success: Team Management Strategies for iGEM Teams with Youssef Abdelmaksoud - iGEM C...Learn about efficient planning strategies for task execution, work distribution and team dynamics, conflict resolution during disagreements, communication among subteams and team members, decision-making processes within the team, stress management techniques, and strategies for collaboration and outreach in this workshop by Synthesizing Synergies.https://static.igem.org/peertube/streaming-playlists/hls/58159ccd-6b5e-46b0-95c1-e8ee91f70d0d/a2bf75f2-0487-419b-8414-19e570c326e0-master.m3u8https://video.igem.org/videos/embed/bSSn4HS1ZgQTtzArvVH7LD36530292024-06-24T11:42:46.896ZiGEM CompetitionTeam WorkYESiGEM CommunityNOhttps://video.igem.org/w/vqYpzedSgZ8TxngfMMSgVjhttps://video.igem.org/lazy-static/thumbnails/eb701fd5-9d37-4a3c-9b4c-380d1bd32fc5.jpgASU: Ligand generation with RF Diffusion (2024)A small movie about 200 iterations of protein generation using RFDiffusion.https://static.igem.org/peertube/streaming-playlists/hls/ee55a221-0ce2-473c-9d0a-fbb2b45ec9f0/179e0756-aa2c-49fd-954b-7aa37f8d3e87-master.m3u8https://video.igem.org/videos/embed/vqYpzedSgZ8TxngfMMSgVj130902024-06-24T18:45:49.332ZYES2024 TeamsNOhttps://video.igem.org/w/71WSWiaQjEAZdHsAaJZMp5https://video.igem.org/lazy-static/thumbnails/530e0fc7-7106-4c27-8cac-d3fa0367197a.jpgBielefeld-CeBiTec: MeetUp (2024) [English]https://2024.igem.wiki/bielefeld-cebitec/ The full video of the first BFH European MeetUp - held in Bielefeld!https://static.igem.org/peertube/streaming-playlists/hls/30b8a6e0-2b4a-4618-8867-4eb8e6a52936/a3d55716-a014-436d-9a88-67c96f7a3856-master.m3u8https://video.igem.org/videos/embed/71WSWiaQjEAZdHsAaJZMp521901702024-06-27T23:37:56.758ZYES2024 TeamsNOhttps://video.igem.org/w/bSrX2aFLQzgdVc2iRotw4Shttps://video.igem.org/lazy-static/thumbnails/8f139af0-e1a4-4ba6-a661-97b419798a8c.jpgBielefeld-CeBiTec: BFH Meet-Up Teaser (2024) [English]This is a teaser to the first ever BFH European Meet-Up held in May 2024 at Bielefeld University, Germany. https://static.igem.org/peertube/streaming-playlists/hls/58069106-97c8-4186-afa8-c5c2c0330a10/d54be5b3-2036-4fd2-9a09-8ec669fcfcaf-master.m3u8https://video.igem.org/videos/embed/bSrX2aFLQzgdVc2iRotw4S470132024-07-05T07:50:22.662ZYES2024 TeamsNOhttps://video.igem.org/w/7xGEQBjgVbQLKcSstVRJguhttps://video.igem.org/lazy-static/thumbnails/86dd99b8-cd13-4228-b5d6-7a4fec69b323.jpgBielefeld-CeBiTec: Muko-Move (2024) [English]Muko-Move is a call to action by the german association for cystic fibrosis. By encouraging people to do activities together and participating in the campaign, Moko-Move aims to raise awareness for the geneticly caused disease cystic fibrosis - with great success: The initial goal of 24.000 hours of exercise was exceeded by 12.000 hours! Team iGEM Bielefeld-CeBiTec contributed their part by not only participating themselves, but also advertising for Muko-Move at the University and throughout Bielefeld, informing about the disease we are dedicated to find a feasable therapy for.https://static.igem.org/peertube/streaming-playlists/hls/3503f3ce-dabb-4f6b-b80f-2a3534cf51c2/bc9c026d-d793-41f3-8ec6-bc952e006925-master.m3u8https://video.igem.org/videos/embed/7xGEQBjgVbQLKcSstVRJgu670122024-07-05T08:05:28.090ZYES2024 TeamsNOhttps://video.igem.org/w/9Z9989zFN54knTkRKsqxYuhttps://video.igem.org/lazy-static/thumbnails/512f526e-23e4-4e8a-9f17-d622449247ee.jpgVirginia: Logo Splash (2024)Wiki homepage title animation sequence. https://2024.igem.wiki/virginia/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/48c38549-d08b-473e-bc2b-85b88f10a028/2e163d57-8a4f-4b69-a9a3-7dd5c018122e-master.m3u8https://video.igem.org/videos/embed/9Z9989zFN54knTkRKsqxYu50182024-07-08T18:33:05.076ZYES2024 TeamsNOhttps://video.igem.org/w/kP1h77gnzQm5E1dDyd1mHHhttps://video.igem.org/lazy-static/thumbnails/4deafd39-9f06-4b3c-8345-575abefa01eb.jpgBiocreators Open Talk #2 with Elaine Regina and Sarah Khan - iGEM Arts GalleryWe are inviting speakers from the biocreative community on topics such as bioart, biofuturism, biodesign, bioarchitecture, and other creative fields integrating biology and creativity. The second online session took place on Saturday, July 13th at 15:00 UTC, and was presented by Elaine Regina and Sarah Khan. Learn more about the project: https://community.igem.org/projects/igem-arts-galleryhttps://static.igem.org/peertube/streaming-playlists/hls/a06dc34a-73a0-4f7e-9bb9-a2ce87629243/e3b40f7e-3046-4e70-ae12-d5af9c4b8447-master.m3u8https://video.igem.org/videos/embed/kP1h77gnzQm5E1dDyd1mHH47610712024-07-17T11:24:37.928ZYESiGEM CommunityNOhttps://video.igem.org/w/n27AcXNkqjUo1JopR5prgghttps://video.igem.org/lazy-static/thumbnails/1ef45c80-0ca9-4e3a-9510-39f3de062156.jpgAsimov - iGEM 2024 Tutorial for building and documenting genetic designs with KernelAsimov - iGEM 2024 Tutorial for building and documenting genetic designs with Kernelhttps://static.igem.org/peertube/streaming-playlists/hls/aa37b77a-a8e9-4a23-9cfb-93dd52495631/765e6589-8a3e-41f9-9f0f-4832fae8781a-master.m3u8https://video.igem.org/videos/embed/n27AcXNkqjUo1JopR5prgg200201132024-07-22T10:22:47.542ZYESiGEM WebinarsNOhttps://video.igem.org/w/mYnmcrQjQJxJtyf1kzT1KWhttps://video.igem.org/lazy-static/thumbnails/925e4445-7bbb-4384-a70b-108ca7a51f59.jpgAsimov - Mastering genetic design, a case study with KernelAsimov - Mastering genetic design, a case study with Kernelhttps://static.igem.org/peertube/streaming-playlists/hls/a9d594a4-6c72-412e-920e-3bc6dc165adc/4432d522-fd5d-4814-8967-ab0d54961901-master.m3u8https://video.igem.org/videos/embed/mYnmcrQjQJxJtyf1kzT1KW269101462024-07-22T11:44:26.020ZYESiGEM WebinarsNOhttps://video.igem.org/w/gVCoaHzGsbfDwApmQEZuRAhttps://video.igem.org/lazy-static/thumbnails/d50a0f01-97c9-4608-8cee-b5e9a2b90a99.jpgVirginia: Dr. Wadlow Interview Clip (2024) [English]Clip of an interview with Dr. Wadlow, a pancreatic cancer specialist. We want to include this in our wiki. https://2024.igem.wiki/virginia/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/80f5ebc9-0c7d-4ffd-bb78-804809d02cf4/10b35320-4f2e-4d09-b4b1-e53dfd54ac45-master.m3u8https://video.igem.org/videos/embed/gVCoaHzGsbfDwApmQEZuRA510142024-07-23T15:14:53.917ZYES2024 TeamsNOhttps://video.igem.org/w/v2PeSftdEETCLqkfdZeKSjhttps://video.igem.org/lazy-static/thumbnails/12f09590-bc26-400d-9516-202e6156bdf4.jpgVirginia: Dr. Froh Interview Clip (2024) [English]Clip from interview with Dr. Froh, a pediatric cystic fibrosis expert. We plan to include this on our wiki: https://2024.igem.wiki/virginia/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/eb19e084-a929-499d-9531-798bfdb7778a/340906f7-db89-4771-a087-87c8d4ac3326-master.m3u8https://video.igem.org/videos/embed/v2PeSftdEETCLqkfdZeKSj420102024-07-23T15:31:40.369ZYES2024 TeamsNOhttps://video.igem.org/w/fJAGS8kXKiid48ReiGjLLAhttps://video.igem.org/lazy-static/thumbnails/fafe6bed-74b2-44b1-9738-2f3faffafa3f.jpgVirginia: Dr. Barnes Interview Clip (2024) [English]Clip from interview with Dr. Barnes that we want to include on our wiki: https://2024.igem.wiki/virginia/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/77529128-61c9-473e-98f2-dfc1991f6dfa/2385b9a8-20aa-4a64-8a58-7ad721d5bafb-master.m3u8https://video.igem.org/videos/embed/fJAGS8kXKiid48ReiGjLLA35082024-07-23T15:33:23.366ZYES2024 TeamsNOhttps://video.igem.org/w/gt634zvw1sZsS4L59QQsiyhttps://video.igem.org/lazy-static/thumbnails/1887037c-8275-440d-b2e2-894cda9b430a.jpgVirginia: Mrs. Nicholson Interview Clip (2024) [English]Clip from interview with Mrs. Nicholson that we want to include on our wiki: https://2024.igem.wiki/virginia/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/7d4143d4-1fa4-4398-bd3c-f6e00fe92f22/7f1591b1-8c7a-4947-b08b-9e04d7a0a031-master.m3u8https://video.igem.org/videos/embed/gt634zvw1sZsS4L59QQsiy33062024-07-23T15:34:47.260ZYES2024 TeamsNOhttps://video.igem.org/w/qE2GhKY13ivTErFX553b5Ghttps://video.igem.org/lazy-static/thumbnails/fcdabe04-a635-4f4a-8293-b634555127b3.jpgVirginia: Dr. Nair Interview Clip (2024) [English]Clip from interview with Dr. Nair that we want to include on our wiki: https://2024.igem.wiki/virginia/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/c7aaa2ad-4af3-4db7-af7b-8bd3ec218dc8/e02cab9f-a1c3-4657-8843-23799f0d5b6d-master.m3u8https://video.igem.org/videos/embed/qE2GhKY13ivTErFX553b5G69072024-07-23T15:37:44.194ZYES2024 TeamsNOhttps://video.igem.org/w/vLe1pwA7ezmvVV63tBFQTihttps://video.igem.org/lazy-static/thumbnails/f3cb9665-bb0d-4455-85dd-12794e81e435.jpgPatras: Breast Cancer Survivors (2024) [Greek]In this video our team, iGEM Patras, interviewed three members of the breast cancer survivor association Alma Zois based in Patras, Greece. Together we talked about their experiences, what helped them maintain a strong mentality throughout their fight and how newly diagnosed breast cancer patients can find support and hope during their journey. We also discussed the importance of early detection, the role of community and family, and the impact of organizations like Alma Zois in providing essential resources and emotional support.https://static.igem.org/peertube/streaming-playlists/hls/f105c34b-15d3-43a4-8ffc-1fefa5ae8b87/b824ee6e-630c-44b6-b6f3-a3a66b5a5fc2-master.m3u8https://video.igem.org/videos/embed/vLe1pwA7ezmvVV63tBFQTi13100162024-07-30T10:33:12.124ZYES2024 TeamsNOhttps://video.igem.org/w/jA653VbFw2RJb9AjxbcZABhttps://video.igem.org/lazy-static/thumbnails/2e33c6a5-66d5-4ad6-bc7c-9c832f0a648a.jpgSydney-Australia: Dr Cook Interview (Full) (2024) [English]We interviewed Dr Kristina Cook, a cancer researcher, about current and emerging issues in therapeutics, and how our iGEM project fits into the drug delivery landscape.https://static.igem.org/peertube/streaming-playlists/hls/9686e890-849c-4ced-ae15-17f7bd0a3713/dfec8880-92cd-43d1-b6a9-2a068652f06c-master.m3u8https://video.igem.org/videos/embed/jA653VbFw2RJb9AjxbcZAB37070432024-08-02T11:39:38.295ZYES2024 TeamsNOhttps://video.igem.org/w/mT1z2AUbXV22P8B6WKnPmDhttps://video.igem.org/lazy-static/thumbnails/53103889-779d-483e-b6ec-9c83cdf9fccb.jpgSydney-Australia: Dr Kumar Interview (Full) (2024) [English]We interviewed Dr Sanjeev Kumar, a drug development researcher and medical oncologist at Chris O'Brien Lifehouse, about current and emerging issues in therapeutics, and how our iGEM project fits into the drug delivery landscape.https://static.igem.org/peertube/streaming-playlists/hls/a9160e70-4618-469c-9ec0-fc6ff3212cc1/6bc8aea2-6266-49ae-8993-35bca3756d2c-master.m3u8https://video.igem.org/videos/embed/mT1z2AUbXV22P8B6WKnPmD402801412024-08-02T11:39:17.768ZYES2024 TeamsNOhttps://video.igem.org/w/vK3PsoveED6ZsGT7cR6mm2https://video.igem.org/lazy-static/thumbnails/d9068ffd-348c-4609-8b75-88bb4c49ccf1.jpgVirginia: Dr. Strand Interview Clip (2024) [English]Clip from our interview with Dr. Strand, which we want to include on our website.https://static.igem.org/peertube/streaming-playlists/hls/f0dbbd71-fa0a-4756-9b44-0552f2f6e111/386bc1e8-c60e-49f7-a98a-32fdb464cea2-master.m3u8https://video.igem.org/videos/embed/vK3PsoveED6ZsGT7cR6mm235062024-08-01T20:17:34.660ZYES2024 TeamsNOhttps://video.igem.org/w/w2Z8FHCGQq5Nww1b1QZ3LNhttps://video.igem.org/lazy-static/thumbnails/b3b447d8-e03e-48e1-9aec-da9190aeda54.jpgNYU-Abu-Dhabi: hero_animation (2024)Just a video of the hero banner animationhttps://static.igem.org/peertube/streaming-playlists/hls/f3391cdb-522a-486f-b63a-7bb652678ad6/ad235f98-b1a7-4564-87d5-55273da229f9-master.m3u8https://video.igem.org/videos/embed/w2Z8FHCGQq5Nww1b1QZ3LN30292024-08-02T09:59:32.637ZYES2024 TeamsNOhttps://video.igem.org/w/4X2eXgNfwmunMpBhdvUxKQhttps://video.igem.org/lazy-static/thumbnails/8234dcb5-de06-434f-8986-b0dd552f31fa.jpgSydney-Australia: Dr Wich Interview (Full) (2024) [English]We interviewed Dr Peter Wich, a drug delivery researcher, about current and emerging issues in therapeutics, and how our iGEM project fits into the drug delivery landscape.https://static.igem.org/peertube/streaming-playlists/hls/1ffa167d-d361-4e9c-8130-3926e9fc803a/e0affa2c-9a79-48c2-b175-7e8a94f03d2a-master.m3u8https://video.igem.org/videos/embed/4X2eXgNfwmunMpBhdvUxKQ39080422024-08-02T11:39:55.546ZYES2024 TeamsNOhttps://video.igem.org/w/kx7BbCmBk6Be1mzP3oFdtkhttps://video.igem.org/lazy-static/thumbnails/12ba87bd-a875-498b-9960-508e7fa47567.jpgiGEM Community - GirlsLab - Unconscious Bias & Gender Stereotyping in STEM with Ann Van der JeugdOn August 13th, 2024, we hosted our first Speaker Event with Ann Van der Jeugd to understand how unconscious biases and gender stereotypes shape the STEM landscape and affect women and gender minorities in STEM. Learn more about the project: https://community.igem.org/projects/girlslabhttps://static.igem.org/peertube/streaming-playlists/hls/9e35c34b-da5a-47e7-8866-db9f695e5ad9/76064fe6-859a-463e-9cda-f3766ce3b2cb-master.m3u8https://video.igem.org/videos/embed/kx7BbCmBk6Be1mzP3oFdtk34080222024-08-13T20:26:28.809ZWomen in STEMYESiGEM CommunityNOhttps://video.igem.org/w/gU1ZLELe9uDyAPW5FXiL3dhttps://video.igem.org/lazy-static/thumbnails/1bb0c27e-2cc8-4c6a-bf99-f83105c425e9.jpgULethbridge: canola-field-video-1-landing-page (2024)Video for background use in landing page on wiki.https://static.igem.org/peertube/streaming-playlists/hls/80bc5ea9-354d-488b-856f-43137058d428/a5ef54c3-8f6f-425f-8adf-3df6e0aa9091-master.m3u8https://video.igem.org/videos/embed/gU1ZLELe9uDyAPW5FXiL3d19052024-08-14T02:36:33.480ZYES2024 TeamsNOhttps://video.igem.org/w/5o8GHKQ1Qg1cG3xXfBiAGuhttps://video.igem.org/lazy-static/thumbnails/a4ed1e68-fb14-4d56-b96d-839fdb74a6d7.jpgSydney-Australia: Professor Thordarson Interview (Full) (2024) [English]We interviewed Professor Pall Thordarson, a nanoparticle drug delivery researcher, about the challenges in the drug delivery industry.https://static.igem.org/peertube/streaming-playlists/hls/237baa05-972e-46fd-ac9f-018dab1127cc/42a7eed4-621a-480e-8668-84d4e2d3661f-master.m3u8https://video.igem.org/videos/embed/5o8GHKQ1Qg1cG3xXfBiAGu30960192024-08-21T10:02:44.672ZYES2024 TeamsNOhttps://video.igem.org/w/tjyWGArUeCHPRDautwBw9Chttps://video.igem.org/lazy-static/thumbnails/26ef48b6-5ab5-46b4-98ec-6f8e6bd6f003.jpgBielefeld-CeBiTec: MUKOmove (2024) [English]Our teams' participation in the MUKOmove sports event to raise awareness for cystic fibrosis.https://static.igem.org/peertube/streaming-playlists/hls/dd3e6eff-95f5-47f4-a0fc-f416db88dfe4/b9ad0d1c-6ca9-49c9-85f0-0c3f994b2721-master.m3u8https://video.igem.org/videos/embed/tjyWGArUeCHPRDautwBw9C6702062024-08-22T14:43:14.405ZYES2024 TeamsNOhttps://video.igem.org/w/eSdneY8fKtcuWDpLP4BcUfhttps://video.igem.org/lazy-static/thumbnails/21d80a54-f6be-4f96-aa4f-a60561b47e7c.jpgBielefeld-CeBiTec: Teuto ruft! (2024) [German]The video of our teams' social media promotion of our participation in the Teuto ruft! event.https://static.igem.org/peertube/streaming-playlists/hls/70499cae-48ae-451a-a889-102ef5e6ccea/9d507137-0851-4c3c-af69-4a16b60de5a8-master.m3u8https://video.igem.org/videos/embed/eSdneY8fKtcuWDpLP4BcUf170172024-08-22T15:26:41.528ZYES2024 TeamsNOhttps://video.igem.org/w/2G8U94Ubp6bCK5abA8Gu89https://video.igem.org/lazy-static/thumbnails/a32bf52d-f6bd-42a8-a91f-70991c0b7e86.jpgBielefeld-CeBiTec: BFH European Meet-up (2024) [English]Impressions of the first ever BFH European Meetup in Bielefeld.https://static.igem.org/peertube/streaming-playlists/hls/0db3c1e2-6552-494c-a6eb-53835f3bb17e/cc655525-d29a-46e1-b078-158b6904e238-master.m3u8https://video.igem.org/videos/embed/2G8U94Ubp6bCK5abA8Gu8926101382024-08-23T06:40:22.833ZYES2024 TeamsNOhttps://video.igem.org/w/qEf71kbqz6a35kNd363Lmehttps://video.igem.org/lazy-static/thumbnails/599bdd99-b98b-4c37-a8d1-8e5b52c33fa5.jpgQueens-Canada: Vecteezy Molecule - Background for Science or Medical 3d rendering (2024)Background video containing floating moleculeshttps://static.igem.org/peertube/streaming-playlists/hls/c7b24860-47ee-46bb-9373-684310fcf0a5/34469841-d7f4-4978-9ebe-48d91ffb7cd0-master.m3u8https://video.igem.org/videos/embed/qEf71kbqz6a35kNd363Lme150612024-08-24T20:38:38.632ZYES2024 TeamsNOhttps://video.igem.org/w/aiDUNqC4GnocfUKM6x1DAzhttps://video.igem.org/lazy-static/thumbnails/9bc0285d-8882-4b1c-963d-96786fde33e2.jpgUBC-Vancouver: UBC and Rashmi Prakash (2024) [English]Welcome to the third episode of our podcast series surrounding the implementation of sustainability and practices in synthetic biology that help us develop more sustainable consumption patterns and decrease our reliance on natural resources. Joining us today is Rashmi Prakash, a biomedical engineer, adjunct professor at the UBC School of Biomedical Engineering and CEO/cofounder of Aruna Revolution. Her company aims to revolutionize menstrual health with compostable menstrual pads made from natural fibres. Rashmi's expertise in medical device development, clean technology, and circular economy principles positions her as an ideal speaker on Sustainable Development Goals 12 and 13, which are discussed in this episode. https://static.igem.org/peertube/streaming-playlists/hls/4b59414f-2f02-4cc3-b484-72dee73337d9/0ebb677a-c413-4b1a-94e3-96ad40336ca7-master.m3u8https://video.igem.org/videos/embed/aiDUNqC4GnocfUKM6x1DAz16240252024-08-25T04:11:58.171ZYES2024 TeamsNOhttps://video.igem.org/w/smV6tn9VRocLYBMBPVXf9Jhttps://video.igem.org/lazy-static/thumbnails/db4fef08-71d9-4577-ab04-c85c5450270b.jpgFHS-NB-ZJ-China: Hello IGEM (2024) [Chinese]FHS-NB-ZJ-China: Hello IGEM (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/d579337b-f5d1-4cc3-bc61-09ac66ab337a/5e3eed94-6ca6-4f91-8674-46c9608dec94-master.m3u8https://video.igem.org/videos/embed/smV6tn9VRocLYBMBPVXf9J1160282024-08-25T08:01:35.741ZYES2024 TeamsNOhttps://video.igem.org/w/sZRewUJk8ux2aoMbV3cMgthttps://video.igem.org/lazy-static/thumbnails/86c03ed5-141f-40b3-9fc8-a728802acbee.jpgExeter: Team Logo Animation (2024)Exeter Team Logo Animated For Home Pagehttps://static.igem.org/peertube/streaming-playlists/hls/daa15756-969b-4b41-b388-9ea625f279cd/2df1ba20-2a21-4bfa-9491-de1478eb22a1-master.m3u8https://video.igem.org/videos/embed/sZRewUJk8ux2aoMbV3cMgt180152024-08-27T15:45:52.799ZYES2024 TeamsNOhttps://video.igem.org/w/kFTQWCWMk8uegURWookcughttps://video.igem.org/lazy-static/thumbnails/ef28fdb2-be69-4e6e-bc0d-30559a51d6d4.jpgThe iGEM Responsibility ConferenceIn 2024, iGEM is hosting the third edition of the **Responsibility Conference** in parallel with the Grand Jamboree to bring together international organizations, leading thinkers, and key practitioners. The 2-day conference, held on October 23 and 24, will feature several sessions covering different topics in responsible synthetic biology: AI and SynBio, Adaptive & Anticipatory Governance Ecosystem for Emerging Technologies, Trustworthiness in Research and Development, DNA Synthesis & Screening and so much more! Learn more: https://responsibility.igem.org/events/2024/conferencehttps://static.igem.org/peertube/streaming-playlists/hls/9f6f976a-2de5-4e16-b8e6-cbb26607750b/efd772f9-f9a6-4e79-a342-f00297a2e54e-master.m3u8https://video.igem.org/videos/embed/kFTQWCWMk8uegURWookcug1540742024-08-27T17:36:49.468ZYESiGEM FoundationNOhttps://video.igem.org/w/vcqWqteeAo5gqydQxa3tJFhttps://video.igem.org/lazy-static/thumbnails/efc11e6f-71da-4849-b8a0-bf6220fb98b1.jpgBNU-China: link-1 (2024) [Chinese]BNU-China: link-1 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/ec719246-80e7-4141-8e3c-345990524ab7/e542f375-7bca-4357-a1a0-8a4013fdbec5-master.m3u8https://video.igem.org/videos/embed/vcqWqteeAo5gqydQxa3tJF275072024-08-27T17:45:43.384ZYES2024 TeamsNOhttps://video.igem.org/w/gE5oEYozvEGvYtkBDk3VExhttps://video.igem.org/lazy-static/thumbnails/97e93d2b-dc91-4736-8936-942eefd796e4.jpgBNU-China: link-3 (2024) [Chinese]BNU-China: link-3 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/7eca0c94-c913-4304-b67a-6a1a608a6f0f/a1df63e3-375e-40a8-a8ed-971eb5daf929-master.m3u8https://video.igem.org/videos/embed/gE5oEYozvEGvYtkBDk3VEx1630192024-08-27T17:47:40.780ZYES2024 TeamsNOhttps://video.igem.org/w/2vFWdepUrrmZMooGrAhbZBhttps://video.igem.org/lazy-static/thumbnails/72060b2a-075d-4751-ad3d-b88cd8072abe.jpgBNU-China: link-5 (2024) [Chinese]BNU-China: link-5 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/0c3e5190-19c9-47dc-86fa-f9c97bb2a8b5/7084b3c9-de2f-42a0-bbb0-743daa3d0b55-master.m3u8https://video.igem.org/videos/embed/2vFWdepUrrmZMooGrAhbZB1510212024-08-27T17:49:11.890ZYES2024 TeamsNOhttps://video.igem.org/w/d6iCtEDb1hfkbZN41GxBQYhttps://video.igem.org/lazy-static/thumbnails/3c0fd6df-d549-4f45-ab3e-4ca68d0d1133.jpgUCalgary: Saqib May Week 2 (2024) [English]UCalgary: Saqib May Week 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/61eb3f39-b0f2-401a-a08a-7eb7bfe63b1c/55478b36-6d88-46a6-8334-1660c23527f5-master.m3u8https://video.igem.org/videos/embed/d6iCtEDb1hfkbZN41GxBQY90122024-08-29T23:10:51.713ZYES2024 TeamsNOhttps://video.igem.org/w/j5wZY9QmvujZ7fTDBYg82ehttps://video.igem.org/lazy-static/thumbnails/c7d3534d-e149-45cb-ab09-67178fab6c8d.jpgUCalgary: Saqib May Week 4 (2024) [English]UCalgary: Saqib May Week 4 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/92669336-7bdd-4552-b34f-f518f6aa91bb/a0823f50-a26c-41b5-8ab5-5b2d13133dc3-master.m3u8https://video.igem.org/videos/embed/j5wZY9QmvujZ7fTDBYg82e9052024-08-29T23:11:04.890ZYES2024 TeamsNOhttps://video.igem.org/w/wcejNvsSHcY3CDZvMQgJd8https://video.igem.org/lazy-static/thumbnails/681d0ccb-28ab-4559-ae90-67d4faa6264e.jpgUCalgary: Saqib Aug Week 1 (2024) [English]UCalgary: Saqib Aug Week 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/f4838d75-f652-46a6-98fc-ee8cdf1d43df/581a9833-8e2d-4f33-a947-da902d7dac32-master.m3u8https://video.igem.org/videos/embed/wcejNvsSHcY3CDZvMQgJd810002024-08-29T23:11:18.393ZYES2024 TeamsNOhttps://video.igem.org/w/dJJdBemRCaCCzCULV8Ycpfhttps://video.igem.org/lazy-static/thumbnails/822af8ef-c865-4d6b-9c02-734d4cf46484.jpgUCalgary: Ferzam Aug Week 3 (2024) [English]UCalgary: Ferzam Aug Week 3 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/6724eb6d-673a-48b4-82e2-c02e989bb720/ea5b95a9-68f1-4cc1-92bd-12d894d304c3-master.m3u8https://video.igem.org/videos/embed/dJJdBemRCaCCzCULV8Ycpf17082024-08-29T23:11:35.790ZYES2024 TeamsNOhttps://video.igem.org/w/hhbP9p5uP3TXTgWGvt3A35https://video.igem.org/lazy-static/thumbnails/bf7b1ef2-4205-41f4-8205-2cfa5d08a048.jpgUCalgary: Ferzam July Week 3 (2024) [English]UCalgary: Ferzam July Week 3 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/83d4c853-e2bf-4d2d-a3c7-c12289fc6960/4e42113a-2ce9-4e98-b315-1ae668e6b546-master.m3u8https://video.igem.org/videos/embed/hhbP9p5uP3TXTgWGvt3A355042024-08-29T23:10:32.756ZYES2024 TeamsNOhttps://video.igem.org/w/5GatZ7B89FbNxTgrd6yZDJhttps://video.igem.org/lazy-static/thumbnails/f1e38d02-e31b-4b75-9166-372e48aa7a24.jpgUCalgary: Ferzam May Week 4 (2024) [English]UCalgary: Ferzam May Week 4 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/26002634-4824-492f-b0a0-f1bf2d536a20/77cf0e4b-a60e-44df-ba6f-3c81765d98f6-master.m3u8https://video.igem.org/videos/embed/5GatZ7B89FbNxTgrd6yZDJ8082024-08-29T23:10:11.596ZYES2024 TeamsNOhttps://video.igem.org/w/c2qmrqqVmXBXAJBJuiHw76https://video.igem.org/lazy-static/thumbnails/cbe3169c-b8fb-47a2-b306-4f2343a406b3.jpgUCalgary: Gio Aug Week 4 (2024) [English]UCalgary: Gio Aug Week 4 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/594746d7-1f78-4c2e-8aad-fab1437e0f91/2caa9a07-2740-4bb9-aff9-134ab0eb6f79-master.m3u8https://video.igem.org/videos/embed/c2qmrqqVmXBXAJBJuiHw7613082024-08-29T23:09:52.008ZYES2024 TeamsNOhttps://video.igem.org/w/wxjF6icmDGNUiU3HMpjHxMhttps://video.igem.org/lazy-static/thumbnails/3e490073-340e-4ad5-9da1-193d5eb1e7a9.jpgUCalgary: Gio July Week 2 (2024) [English]UCalgary: Gio July Week 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/f751b994-9ba0-4bbc-bf11-a13073369597/9e5d2c80-b890-4422-8c81-47ec42443198-master.m3u8https://video.igem.org/videos/embed/wxjF6icmDGNUiU3HMpjHxM9042024-08-29T23:08:56.809ZYES2024 TeamsNOhttps://video.igem.org/w/edTrcn7zHxQpVtGR9UbqPChttps://video.igem.org/lazy-static/thumbnails/8e9b7f40-0b58-432b-a702-9234e46dba9b.jpgUCalgary: Gio May Week 3 (2024) [English]UCalgary: Gio May Week 3 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/6b136ce7-33c3-4e36-b8ef-0e4510411f3a/aa117607-b1cd-4752-b63d-b5a45f9e80ec-master.m3u8https://video.igem.org/videos/embed/edTrcn7zHxQpVtGR9UbqPC10002024-08-29T23:07:17.108ZYES2024 TeamsNOhttps://video.igem.org/w/t6A1j3BCZk7K9VcxKXDFqohttps://video.igem.org/lazy-static/thumbnails/5cefe308-42a4-44cc-b67f-c63e89b60840.jpgUCalgary: Graciela July Week 4 (2024) [English]UCalgary: Graciela July Week 4 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/db6e6b52-0025-4cdd-9f99-feda0b09445a/4dc3132b-707e-4c1a-a7b4-8d05ba8f20e3-master.m3u8https://video.igem.org/videos/embed/t6A1j3BCZk7K9VcxKXDFqo8052024-08-29T23:05:29.484ZYES2024 TeamsNOhttps://video.igem.org/w/pa2gR5HDRbwALJ8WNEiZjGhttps://video.igem.org/lazy-static/thumbnails/8a8aeea6-330b-4297-9b08-8aa7334b8b8d.jpgUCalgary: Graciela June Week 4 (2024) [English]UCalgary: Graciela June Week 4 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/bb84aaf1-ea25-48fc-81fa-22560f237608/535d3dbf-d430-4743-bfb3-06cf449c4745-master.m3u8https://video.igem.org/videos/embed/pa2gR5HDRbwALJ8WNEiZjG8032024-08-29T23:05:03.441ZYES2024 TeamsNOhttps://video.igem.org/w/ayn4T58LAZNtLvNwSA27DQhttps://video.igem.org/lazy-static/thumbnails/59e2e673-1820-4166-9362-848904293aac.jpgUCalgary: Graciela May Week 3 (2024) [English]UCalgary: Graciela May Week 3 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/4d670811-d20a-4298-8814-c6227676e672/d77bd92f-081a-4028-83e7-99e2e0e38656-master.m3u8https://video.igem.org/videos/embed/ayn4T58LAZNtLvNwSA27DQ10002024-08-29T23:04:46.036ZYES2024 TeamsNOhttps://video.igem.org/w/d5p5dV5npRsmdf8gX1GSTAhttps://video.igem.org/lazy-static/thumbnails/2d710ca4-d988-46cb-a029-93a51c60175d.jpgUCalgary: Morgan Aug Week 1 (2024) [English]UCalgary: Morgan Aug Week 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/61cadbad-d14d-4c1f-a133-9c6197d63598/4e3a0122-c2d5-4c2f-9f09-fd1cbd86c1d2-master.m3u8https://video.igem.org/videos/embed/d5p5dV5npRsmdf8gX1GSTA16032024-08-29T23:04:31.710ZYES2024 TeamsNOhttps://video.igem.org/w/mPSsvF4xjMUEnhCvVbu94Jhttps://video.igem.org/lazy-static/thumbnails/bd61132d-406b-4c6f-93a0-2c4c0c253e5b.jpgUCalgary: Morgan June Week 2 (2024) [English]UCalgary: Morgan June Week 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/a8a5d35f-cbd3-401d-8ce4-55fa9d86cc58/3e321474-4e5c-4162-8479-9f9711cbe7e9-master.m3u8https://video.igem.org/videos/embed/mPSsvF4xjMUEnhCvVbu94J11042024-08-29T23:03:54.632ZYES2024 TeamsNOhttps://video.igem.org/w/c9SKNuFTtacAiQUwVNDV7shttps://video.igem.org/lazy-static/thumbnails/64961af1-1036-441e-a0df-f015dd881670.jpgUCalgary: Nirmal May Week 5 (2024) [English]UCalgary: Nirmal May Week 5 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/5a51c121-e74b-40a7-8c31-1009482dac32/14121f6d-3552-45cc-9af8-f26c318410d6-master.m3u8https://video.igem.org/videos/embed/c9SKNuFTtacAiQUwVNDV7s5032024-08-29T23:03:17.598ZYES2024 TeamsNOhttps://video.igem.org/w/jbdkB8L82j7yyuJWBeessUhttps://video.igem.org/lazy-static/thumbnails/44feb7d9-1349-4ed5-a619-359c623e07f9.jpgUCalgary: Si Chen Aug Week 3 (2024) [English]UCalgary: Si Chen Aug Week 3 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/93318983-6409-4e6f-93cd-8f33861504f8/23084643-01db-47dd-8999-b86161955878-master.m3u8https://video.igem.org/videos/embed/jbdkB8L82j7yyuJWBeessU10002024-08-29T23:03:03.442ZYES2024 TeamsNOhttps://video.igem.org/w/jS6Kjep1wT5gqi9SSUQUvBhttps://video.igem.org/lazy-static/thumbnails/99fd5b37-2c28-4068-b8fb-6b0420de4f2b.jpgUCalgary: Si Chen June Week 1 (2024) [English]UCalgary: Si Chen June Week 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/98c339d9-3182-49f4-8204-25cf2b7cd385/d7d49666-6644-4354-bf94-74ab522c8b86-master.m3u8https://video.igem.org/videos/embed/jS6Kjep1wT5gqi9SSUQUvB10042024-08-29T23:02:40.381ZYES2024 TeamsNOhttps://video.igem.org/w/hKUTWUGEs5oJQF9prfRjTkhttps://video.igem.org/lazy-static/thumbnails/a9ad75e8-93fa-4b52-9c75-ba198a9dbaf5.jpgUCalgary: Si Chen May Week 1 (2024) [English]UCalgary: Si Chen May Week 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/87b3cc7b-a658-4485-95f7-bd3f986b1011/07b28cb1-b683-4bba-8c54-341a3718489c-master.m3u8https://video.igem.org/videos/embed/hKUTWUGEs5oJQF9prfRjTk70242024-08-29T23:02:19.834ZYES2024 TeamsNOhttps://video.igem.org/w/cHie4M7LrBgpTPkw27GKo4https://video.igem.org/lazy-static/thumbnails/33a8630c-cfd5-46e2-bb2d-ceabfb696641.jpgEPFL: Motors Arms Assembly (2024)Video showing the assembly of the motors and arms of the drone built by the EPFL iGEM 2024 team.https://static.igem.org/peertube/streaming-playlists/hls/5ed8a2a1-530b-4b0f-bf24-cb08d559784b/bd776d41-5c1a-41f2-87f0-93c9d27384c3-master.m3u8https://video.igem.org/videos/embed/cHie4M7LrBgpTPkw27GKo41620292024-08-28T08:15:02.710ZYES2024 TeamsNOhttps://video.igem.org/w/sPBxKXG7o6ZmzRk5PKytCNhttps://video.igem.org/lazy-static/thumbnails/b08dc2e8-12bb-41b1-8a50-089f131ed473.jpgLinkoping: home page animation (2024)This video is meant to be embedded on the home page of the following wiki: https://2024.igem.wiki/linkoping/ https://static.igem.org/peertube/streaming-playlists/hls/d9337824-725e-4844-960e-fbd1a598adb2/4b7d9d16-95a7-4d43-9c55-1c28456fd8d3-master.m3u8https://video.igem.org/videos/embed/sPBxKXG7o6ZmzRk5PKytCN501562024-08-28T08:47:45.798ZYES2024 TeamsNOhttps://video.igem.org/w/vMyMo33cz3chEF36RQUdhehttps://video.igem.org/lazy-static/thumbnails/0c39449b-444f-4f27-a9f8-3aecd1d92a2e.jpgEPFL: Spraying System (2024)Video showing the assembly of the spraying system of the drone built by the EPFL iGEM 2024 team.https://static.igem.org/peertube/streaming-playlists/hls/f135b194-4c7c-47b8-be93-ae66d252575d/fcfabadb-c39d-47c1-aa61-1e17328fba5e-master.m3u8https://video.igem.org/videos/embed/vMyMo33cz3chEF36RQUdhe2130552024-08-28T10:37:30.938ZYES2024 TeamsNOhttps://video.igem.org/w/oKz2XuL21HqJeEgbkqQEshhttps://video.igem.org/lazy-static/thumbnails/755badad-9cfe-401a-bb6b-bc8c2d3cdaad.jpgCJUH-JLU-China: Entering the Kingdom of Cells--Shuxun Primary School (2024) [English]CJUH-JLU-China team went to Changchun Shuxun Primary School for a lecture on the theme of exploring the journey of cells.https://static.igem.org/peertube/streaming-playlists/hls/b83e63f0-e23c-42ce-b72d-2ad25088212c/5ac9a9d0-8999-4d39-8b1b-5724dd7d0836-master.m3u8https://video.igem.org/videos/embed/oKz2XuL21HqJeEgbkqQEsh1260282024-09-01T08:04:34.224ZYES2024 TeamsNOhttps://video.igem.org/w/86znrRHWYs4potxxe8Enjdhttps://video.igem.org/lazy-static/thumbnails/73a9994a-f56c-459c-8585-dcce4b8471a9.jpgExeter: Team Logo Animation (2024)Exeter Team Logo Animated For Home Page (cropped version) https://static.igem.org/peertube/streaming-playlists/hls/3977411a-9dfd-46a4-ae9f-c173d69040d4/da119514-ce62-4c49-acc4-983404f0f6d3-master.m3u8https://video.igem.org/videos/embed/86znrRHWYs4potxxe8Enjd1802482024-09-02T08:35:59.552ZYES2024 TeamsNOhttps://video.igem.org/w/3PKSXnXqAJNAS3RCWEd746https://video.igem.org/lazy-static/thumbnails/5901a6d1-4fd7-431b-93c0-8e8713d3bd26.jpgPennState: What is Synthetic Biology (2024) [English]A brief presentation walking through the history of Synthetic Biology, what it means today, and how students can get involved.https://static.igem.org/peertube/streaming-playlists/hls/16dd468e-bd5b-4336-ade6-b67867297b0b/00783f4a-f6b7-4617-87f1-3c0104cfd27b-master.m3u8https://video.igem.org/videos/embed/3PKSXnXqAJNAS3RCWEd7465000212024-09-04T14:37:47.511ZYES2024 TeamsNOhttps://video.igem.org/w/5iGvKkgFnwWAT5cFupgBk8https://video.igem.org/lazy-static/thumbnails/56ed4df8-9880-44d7-9ae9-5ce82e6cdf73.jpgPennState: Careers in Synthetic Biology (2024) [English]A presentation explaining the possible career paths you can pursue within the field of Synthetic Biology.https://static.igem.org/peertube/streaming-playlists/hls/22dd2a6a-023e-4c0b-b9b0-9d3951d053c9/65df6afe-8991-44b7-903c-66742c6876a8-master.m3u8https://video.igem.org/videos/embed/5iGvKkgFnwWAT5cFupgBk82350292024-09-04T16:32:07.792ZYES2024 TeamsNOhttps://video.igem.org/w/bQpTav4AZeK6KPfubGjb9hhttps://video.igem.org/lazy-static/thumbnails/26a8ac34-d09c-454f-b183-06cfafd4f5f7.jpgOUC-Haide: Homeview (2024)https://2024.igem.wiki/ouc-haide/https://static.igem.org/peertube/streaming-playlists/hls/57bdce31-dc66-4ba7-af28-9064e42c29d8/5159e2df-c1e8-4883-8260-a485eadeaf5e-master.m3u8https://video.igem.org/videos/embed/bQpTav4AZeK6KPfubGjb9h1101352024-09-06T01:23:56.282ZYES2024 TeamsNOhttps://video.igem.org/w/hmFW4RTAmu2nEx8tRKw1sdhttps://video.igem.org/lazy-static/thumbnails/2c525237-e799-4380-9c4f-9b639f9dda26.jpgANU: CORA Reef (2024)Video of reef with CORA name for use on wiki https://2024.igem.wiki/anu/https://static.igem.org/peertube/streaming-playlists/hls/8475b3fa-8477-4910-a506-fad340d6d530/1420506e-0831-4b3f-bd7b-9c09755b5924-master.m3u8https://video.igem.org/videos/embed/hmFW4RTAmu2nEx8tRKw1sd170272024-09-06T03:10:35.678ZYES2024 TeamsNOhttps://video.igem.org/w/1m78WzksVphVS44TWGPVEMhttps://video.igem.org/lazy-static/thumbnails/993a3896-e812-4e6b-952a-3c16ab4d631b.jpgCJUH-JLU-China: Jilin University Affiliated Middle School (2024)CJUH-JLU-China Team went to Jilin University Affiliated Middle School.https://static.igem.org/peertube/streaming-playlists/hls/02cea84b-d19e-4a2d-b952-0f5877856215/c1a010b6-1750-4d62-944b-9e83ec3bcf8c-master.m3u8https://video.igem.org/videos/embed/1m78WzksVphVS44TWGPVEM57032024-09-06T12:04:47.035ZYES2024 TeamsNOhttps://video.igem.org/w/gBVWYKcZCnjt3SPTBFgQEYhttps://video.igem.org/lazy-static/thumbnails/e9734394-92f8-4bef-8112-4d37f36d246e.jpgCJUH-JLU-China: Design the heart in your mind (2024) [Chinese]CJUH-JLU-China Team carried out "Design the heart in your mind" activity.https://static.igem.org/peertube/streaming-playlists/hls/7e7d5bc1-d1a2-4706-b302-8d1808dbd87c/d608d431-b73f-4c09-9691-b6292d304ed7-master.m3u8https://video.igem.org/videos/embed/gBVWYKcZCnjt3SPTBFgQEY1010122024-09-06T12:16:56.974ZYES2024 TeamsNOhttps://video.igem.org/w/hePQRzTi3EWesoeBEjQc6Lhttps://video.igem.org/lazy-static/thumbnails/179dea2c-2f17-49f7-a745-c8d9f4405908.jpgCJUH-JLU-China: Cardiac Health Interview (2024) [Chinese]CJUH-JLU-China made Cardiac Health Interview related to Reverse Cardio-Oncology. https://static.igem.org/peertube/streaming-playlists/hls/83805f17-64fe-445b-be1f-4e4cb0a1db7a/f936853f-3510-4686-a536-97080f6a2237-master.m3u8https://video.igem.org/videos/embed/hePQRzTi3EWesoeBEjQc6L109052024-09-06T13:02:03.299ZYES2024 TeamsNOhttps://video.igem.org/w/6oEkUQ2goYhGFBVrouFsG5https://video.igem.org/lazy-static/thumbnails/2b7451f1-efa5-4d2e-a9d1-b7daefeeb70c.jpgCJUH-JLU-China: Lab Wonders & Micro Art (2024)CJUH-JLU-China: Lab Wonders & Micro Art (2024)https://static.igem.org/peertube/streaming-playlists/hls/2ba7afa6-59d7-42ef-ab03-8b2f16964614/eba253c4-a8e5-4338-b707-c805422b2768-master.m3u8https://video.igem.org/videos/embed/6oEkUQ2goYhGFBVrouFsG5114012024-09-06T13:16:43.487ZYES2024 TeamsNOhttps://video.igem.org/w/5mQHnvdHQgQ5qtakB64pEshttps://video.igem.org/lazy-static/thumbnails/81fd8a9b-62e4-4baf-af28-022dc3e1b4d0.jpgCJUH-JLU-China: The 18th Oriental Cardio-Oncology Conference (2024)CJUH-JLU-China attended The 18th Oriental Cardio- Oncology Conference.https://static.igem.org/peertube/streaming-playlists/hls/234d735f-2aa3-49d0-b515-f3af31265bda/882669d4-3ed2-4e34-bcf5-9a4026ba076b-master.m3u8https://video.igem.org/videos/embed/5mQHnvdHQgQ5qtakB64pEs52032024-09-06T13:20:59.266ZYES2024 TeamsNOhttps://video.igem.org/w/wkSNh9VwS6CRLqemyrdAJwhttps://video.igem.org/lazy-static/thumbnails/7f66d888-f181-4924-b10f-5da475d5c042.jpgCJUH-JLU-China: CCIC (2024) [English]CJUH-JLU-China: CCIC (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/f5b898c4-af98-4be4-a015-4ffbbc95665a/19a80d45-a71b-4063-a430-88ee05bf622f-master.m3u8https://video.igem.org/videos/embed/wkSNh9VwS6CRLqemyrdAJw470122024-09-06T13:33:59.351ZYES2024 TeamsNOhttps://video.igem.org/w/bxbzuuk1HcEjwMtakpReSBhttps://video.igem.org/lazy-static/thumbnails/f14c2548-da94-44c4-b2da-073c40015af5.jpgCJUH-JLU-China: Cardiac Health Exercise (Decomposed Version) (2024) [Chinese]CJUH-JLU-China: Cardiac Health Exercise (Decomposed Version) (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/5555f648-996d-4184-94f4-3d1a5eb25403/094797d5-b1cf-4744-816c-3ca5b64aabc4-master.m3u8https://video.igem.org/videos/embed/bxbzuuk1HcEjwMtakpReSB230032024-09-06T14:21:57.468ZYES2024 TeamsNOhttps://video.igem.org/w/iB41QyAJbUSXwJs7MkrckChttps://video.igem.org/lazy-static/thumbnails/8b2e565d-fe22-4e9c-87ba-4e7479f2e232.jpgiGEM Community - Mastering SciComm Expert TalkOn September 6th, 2024, we hosted an Expert Talk on Careers in Science Communication! Three incredible speakers shared their learnings and experiences. Learn more: https://community.igem.org/projects/mastering-science-communicationhttps://static.igem.org/peertube/streaming-playlists/hls/8e903f33-a6a3-4662-b74e-e14e036440b6/46bb6bb9-a010-4014-96e2-0a2f40585532-master.m3u8https://video.igem.org/videos/embed/iB41QyAJbUSXwJs7MkrckC37120232024-09-07T19:20:13.624ZExpert Talk SessionYESiGEM CommunityNOhttps://video.igem.org/w/eMpcGbsoSmy7bwAa5MKo4Uhttps://video.igem.org/lazy-static/thumbnails/ede6e964-eee9-4e91-89ae-d3ba188a1be5.jpgiGEM Community - GirlsLab - Strategies for future personalized breast cancer treatment with Dr. R...On September 7th, 2024, we hosted our second Speaker Event with Dr. Rebeca García to understand strategies for future personalized breast cancer treatment. Learn more about the project: https://community.igem.org/projects/girlslab https://static.igem.org/peertube/streaming-playlists/hls/6f9d921a-ef57-4ad7-b117-e88820b7e042/95d40c6b-fa49-4960-801b-aeb5fbb7b359-master.m3u8https://video.igem.org/videos/embed/eMpcGbsoSmy7bwAa5MKo4U51990152024-09-07T20:41:58.215ZWiSTEMYESiGEM CommunityNOhttps://video.igem.org/w/puRNLc7t4DhUVVZJ2Mpu6Ahttps://video.igem.org/lazy-static/thumbnails/5bcf2805-d994-455f-b429-ebc0db9d14b1.jpgUCalgary: Kfir Aug Week 2 (2024) [English]UCalgary: Kfir Aug Week 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/be49b57c-28cb-4ef0-9b31-90d30e71203c/a124308e-c591-4544-833f-f54c6f672d06-master.m3u8https://video.igem.org/videos/embed/puRNLc7t4DhUVVZJ2Mpu6A8032024-09-09T06:28:38.104ZYES2024 TeamsNOhttps://video.igem.org/w/rvpzNQ2YH1Gs5qp3HTJj9Yhttps://video.igem.org/lazy-static/thumbnails/a17c0476-3406-4341-b349-c9175891a5c2.jpgUCalgary: Kfir June Week 3 (2024) [English]UCalgary: Kfir June Week 3 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/ce8f91bd-9d73-40ba-b328-f9247564aff0/918495cd-1111-481c-a351-625eeb266980-master.m3u8https://video.igem.org/videos/embed/rvpzNQ2YH1Gs5qp3HTJj9Y12032024-09-09T13:06:10.576ZYES2024 TeamsNOhttps://video.igem.org/w/ixKGRWJVrSLHGRmyNyywNThttps://video.igem.org/lazy-static/thumbnails/15f02b8c-af10-423f-bad6-4d31ddf3f0e4.jpgUCalgary: Kfir May Week 5 (2024) [English]UCalgary: Kfir May Week 5 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/8e1a5912-fcc7-4edd-b209-d7ed68a23d97/7b733260-e9b3-406d-ad40-5f760d7804f8-master.m3u8https://video.igem.org/videos/embed/ixKGRWJVrSLHGRmyNyywNT7022024-09-09T13:07:11.230ZYES2024 TeamsNOhttps://video.igem.org/w/nJH1Y75tZ8qfgHTx5kYxY9https://video.igem.org/lazy-static/thumbnails/b760878f-fd73-48f4-873f-946833d7c2ca.jpgUCalgary: Nirmal May Week 5 (2) (2024) [English]UCalgary: Nirmal May Week 5 (2) (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/b0066d78-e0d1-4fad-a5ab-e3cb9aeb1bc4/0fb84504-d390-4032-ad2c-c51bbcd76853-master.m3u8https://video.igem.org/videos/embed/nJH1Y75tZ8qfgHTx5kYxY94032024-09-09T13:08:12.782ZYES2024 TeamsNOhttps://video.igem.org/w/3PHnTWMDTs4jtjE3Gfebd3https://video.igem.org/lazy-static/thumbnails/67a8ad89-c197-4537-9bfc-f33bdf5c79ef.jpgUCalgary: Nirmal June Week 3 (2024) [English]UCalgary: Nirmal June Week 3 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/16dbbbfb-8643-49a5-8270-d50fda181d8a/0ac5955f-ad11-4d28-a55a-ed6700fc24fc-master.m3u8https://video.igem.org/videos/embed/3PHnTWMDTs4jtjE3Gfebd313032024-09-09T13:08:24.681ZYES2024 TeamsNOhttps://video.igem.org/w/34aw9QEEbGsu8C3DttsDedhttps://video.igem.org/lazy-static/thumbnails/4578857e-f868-4c9f-ae40-4c0d2647300a.jpgUCalgary: Nirmal July Week 4 (2024) [English]UCalgary: Nirmal July Week 4 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/10a3601d-fe39-444c-9cab-086ec05a5012/5f93f692-a4aa-48b9-83f3-819a9ad15268-master.m3u8https://video.igem.org/videos/embed/34aw9QEEbGsu8C3DttsDed16032024-09-09T13:08:37.223ZYES2024 TeamsNOhttps://video.igem.org/w/9WA8effqXeGUNFiUaDmP3Nhttps://video.igem.org/lazy-static/thumbnails/71032d13-0e0f-4dfd-be34-32888f75d20c.jpgUCalgary: Jodh July Week 2 (2024) [English]UCalgary: Jodh July Week 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/48684d8b-6ac1-405f-a78f-592d782125ce/bedbf9d7-238b-4e74-ab57-3e7e9703b4f3-master.m3u8https://video.igem.org/videos/embed/9WA8effqXeGUNFiUaDmP3N10002024-09-09T13:08:47.874ZYES2024 TeamsNOhttps://video.igem.org/w/f4vP2HVZMFqiTkKUyWmnmshttps://video.igem.org/lazy-static/thumbnails/cebb0a26-0cdf-4d7c-9167-692e925b23c8.jpgUCalgary: Jodh Aug Week 2 (2024) [English]UCalgary: Jodh Aug Week 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/71dd8b4c-f87f-4e4d-aa3e-1d49fbe47696/1437d6fb-a141-46a5-b053-277fde3332fa-master.m3u8https://video.igem.org/videos/embed/f4vP2HVZMFqiTkKUyWmnms8022024-09-09T13:08:56.771ZYES2024 TeamsNOhttps://video.igem.org/w/qhQx6C5wGMV3Tu4eo7fxnKhttps://video.igem.org/lazy-static/thumbnails/1cfac8a9-df65-417d-a4ab-5e9836b7cd13.jpgUCalgary: Jodh June Week 1 (2024) [English]UCalgary: Jodh June Week 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/c4b523be-9f3d-443a-91a1-45b58d2eaf59/73e582da-2c01-4793-a6d5-bc1a2748ad29-master.m3u8https://video.igem.org/videos/embed/qhQx6C5wGMV3Tu4eo7fxnK8042024-09-09T13:09:06.626ZYES2024 TeamsNOhttps://video.igem.org/w/65cxyRAfAtAiVgbSsG5n1Zhttps://video.igem.org/lazy-static/thumbnails/c28f8356-9d97-4bf2-aedb-8646d3898f04.jpgUCalgary: Luis July Week 1 (2024) [English]UCalgary: Luis July Week 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/2913c864-091e-4946-ab71-4bca351af00d/ff27897e-d0e0-48d6-8e7b-ed959b07b2dc-master.m3u8https://video.igem.org/videos/embed/65cxyRAfAtAiVgbSsG5n1Z3062024-09-09T13:09:13.877ZYES2024 TeamsNOhttps://video.igem.org/w/8MWrrnnhpgha1KXX9JPDNThttps://video.igem.org/lazy-static/thumbnails/d4bf859b-cc81-454a-acc8-42043b29c7bc.jpgUCalgary: Luis May Week 2 (2024) [English]UCalgary: Luis May Week 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/3f19fd3e-7330-4e83-a527-a2d86435e80b/9671e420-0f8c-42f8-892d-d9037e4d8500-master.m3u8https://video.igem.org/videos/embed/8MWrrnnhpgha1KXX9JPDNT6092024-09-09T13:09:21.998ZYES2024 TeamsNOhttps://video.igem.org/w/uJ7U2GvVyw5iVTKxBPaUcKhttps://video.igem.org/lazy-static/thumbnails/94062e60-598c-4d97-9b55-18e6b812822b.jpgUCalgary: Maren July Week 1 (2024) [English]UCalgary: Maren July Week 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/e8a15f0c-541c-4dec-97eb-ace1519c5271/09b25f5c-f339-47b7-b897-9927967087a5-master.m3u8https://video.igem.org/videos/embed/uJ7U2GvVyw5iVTKxBPaUcK15042024-09-10T04:32:11.050ZYES2024 TeamsNOhttps://video.igem.org/w/3BwKXmFzi2NKwfGYRyna6qhttps://video.igem.org/lazy-static/thumbnails/a0dc18d0-c90b-47bd-bcfc-4143d831d355.jpgUCalgary: Maren July Week 3 (2024) [English]UCalgary: Maren July Week 3 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/152843b3-9969-4d98-b97d-429468f22a66/52bfb962-3560-4f21-aafd-c3c2dbf33689-master.m3u8https://video.igem.org/videos/embed/3BwKXmFzi2NKwfGYRyna6q21042024-09-10T04:32:25.868ZYES2024 TeamsNOhttps://video.igem.org/w/etg4nF4txkHHejVMJ2LLVHhttps://video.igem.org/lazy-static/thumbnails/cabccee2-9cfd-4645-adcd-84938470533c.jpgUCalgary: Maren May Week 1 (2024) [English]UCalgary: Maren May Week 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/6d152a0f-3b7e-48b8-b038-7ea3b9dacc4b/896ebfc1-9f2c-48d1-a4b3-46a62c8b6140-master.m3u8https://video.igem.org/videos/embed/etg4nF4txkHHejVMJ2LLVH190112024-09-10T04:32:40.527ZYES2024 TeamsNOhttps://video.igem.org/w/15d48iDsPNgqDeC4MzD1Uwhttps://video.igem.org/lazy-static/thumbnails/4397c75d-b653-4a9e-8f11-d86c0e82e58d.jpgDTU-Denmark: Interview with Christian Ege at Folkemødet (2024) [Danish]An interview with Christian Ege at Folkemødet 2024. Used in the Human Practices of https://2024.igem.wiki/dtu-denmark/. Interviewer - Mikkel Lyskjær Jensenhttps://static.igem.org/peertube/streaming-playlists/hls/0096674f-82f1-4cbe-a948-7997c535239e/90781dba-b4a4-44e1-b1f7-679fd185b080-master.m3u8https://video.igem.org/videos/embed/15d48iDsPNgqDeC4MzD1Uw805042024-09-12T10:19:52.489ZYES2024 TeamsNOhttps://video.igem.org/w/hKUz5yD5XqiRakF2Esnyikhttps://video.igem.org/lazy-static/thumbnails/113c21b7-c9f3-454f-b02f-f6492a7f12d1.jpgDTU-Denmark: Interview with Ellen Trane Nørby at Folkemødet (2024) [Danish]An interview with Ellen Trane Nørby at Folkemødet 2024. Used in the Human Practices of https://2024.igem.wiki/dtu-denmark/. Interviewer - Mikkel Lyskjær Jensenhttps://static.igem.org/peertube/streaming-playlists/hls/87b39928-fe97-4e16-8b1c-5e62f84a7fd5/b2f7c51f-9c20-4046-9903-aa807fd70490-master.m3u8https://video.igem.org/videos/embed/hKUz5yD5XqiRakF2Esnyik225052024-09-12T10:34:00.434ZYES2024 TeamsNOhttps://video.igem.org/w/kn9UmJq6oyXjGv2kTQNnfRhttps://video.igem.org/lazy-static/thumbnails/1dc82ee4-dace-4553-96c4-7ab3312d1812.jpgDTU-Denmark: Interview with Franciska Rosenkilde at Folkemødet (2024) [Danish]An interview with Franciska Rosenkilde at Folkemødet 2024. Used in the Human Practices of https://2024.igem.wiki/dtu-denmark/. Interviewer - Mikkel Lyskjær Jensenhttps://static.igem.org/peertube/streaming-playlists/hls/9cd1bd7d-e90d-4d3d-a2d5-7fd00d6d1aa1/220f1c6d-bd33-445b-b846-0a368425c01a-master.m3u8https://video.igem.org/videos/embed/kn9UmJq6oyXjGv2kTQNnfR180092024-09-12T10:46:33.601ZYES2024 TeamsNOhttps://video.igem.org/w/rr6VxKYaJ2LtBAdVJyHPCWhttps://video.igem.org/lazy-static/thumbnails/2be9c933-5705-4a50-bda2-67c8213a9910.jpgDTU-Denmark: Interview with Magnus Heunicke at Folkemødet (2024) [Danish]An interview with Magnus Heunicke at Folkemødet 2024. Used in the Human Practices of https://2024.igem.wiki/dtu-denmark/. Interviewer - Mikkel Lyskjær Jensenhttps://static.igem.org/peertube/streaming-playlists/hls/cdf5b608-d379-49b1-a49b-a79735a6a5e2/3ce27f07-e4d3-4e74-b860-8b7c6b1a5581-master.m3u8https://video.igem.org/videos/embed/rr6VxKYaJ2LtBAdVJyHPCW1660222024-09-12T10:58:03.895ZYES2024 TeamsNOhttps://video.igem.org/w/nGKmxkwir8WgEqFzhgskGNhttps://video.igem.org/lazy-static/thumbnails/711d980b-e072-4c47-9037-0f31120e382f.jpgDTU-Denmark: Interview with Magnus Löfstedt at Folkemødet (2024) [English]An interview with Magnus Löfstedt at Folkemødet 2024. Used in the Human Practices of https://2024.igem.wiki/dtu-denmark/. Interviewer - Mikkel Lyskjær Jensenhttps://static.igem.org/peertube/streaming-playlists/hls/afc0616e-f9e6-41d4-9df4-fe66f83f60aa/1f7cab82-8894-4be6-88f7-afc27dabd178-master.m3u8https://video.igem.org/videos/embed/nGKmxkwir8WgEqFzhgskGN202082024-09-12T11:10:22.784ZYES2024 TeamsNOhttps://video.igem.org/w/pES4WBt1B42m6uy3QaHZGihttps://video.igem.org/lazy-static/thumbnails/c16aeef2-c43f-4a97-9f8c-bcfd3a816889.jpgDTU-Denmark: Interview with Niels Bjerre at Folkemødet (2024) [English]An interview with Niels Bjerre at Folkemødet 2024. Used in the Human Practices of https://2024.igem.wiki/dtu-denmark/. Interviewer - Mikkel Lyskjær Jensenhttps://static.igem.org/peertube/streaming-playlists/hls/bfaf4ed3-89cd-4f7b-b738-647a85274c9d/8937387a-b829-4616-82f0-b543c051ad5c-master.m3u8https://video.igem.org/videos/embed/pES4WBt1B42m6uy3QaHZGi2200122024-09-12T11:24:50.326ZYES2024 TeamsNOhttps://video.igem.org/w/x3ehZDnwCqZc2cLXRCFbqqhttps://video.igem.org/lazy-static/thumbnails/2c892aa6-08a9-4eff-9d4f-9e69e7a76d2f.jpgDTU-Denmark: Interview with Susan Münster at Folkemødet (2024) [Danish]An interview with Susan Münster at Folkemødet 2024. Used in the Human Practices of https://2024.igem.wiki/dtu-denmark/. Interviewer - Mikkel Lyskjær Jensenhttps://static.igem.org/peertube/streaming-playlists/hls/fb5afa64-ccb8-413f-9459-65fc91821da8/d7dfdc8f-d0c5-42ec-a9e8-7c9953a522e0-master.m3u8https://video.igem.org/videos/embed/x3ehZDnwCqZc2cLXRCFbqq2500112024-09-12T11:39:52.165ZYES2024 TeamsNOhttps://video.igem.org/w/k4EEsW7RpfcFJU8gzEqy99https://video.igem.org/lazy-static/thumbnails/61a1bf20-f1b7-4008-b4b9-47fcab79b76a.jpgDTU-Denmark: Interview with Svend Lindeberg at Folkemødet (2024) [Danish]An interview with Svend Lindeberg at Folkemødet 2024. Used in the Human Practices of https://2024.igem.wiki/dtu-denmark/. Interviewer - Mikkel Lyskjær Jensenhttps://static.igem.org/peertube/streaming-playlists/hls/9a60b160-9987-4d99-88ce-cf244c6a8758/7e26189c-c44d-47ce-aef9-42f1e973def0-master.m3u8https://video.igem.org/videos/embed/k4EEsW7RpfcFJU8gzEqy991910142024-09-12T11:51:21.200ZYES2024 TeamsNOhttps://video.igem.org/w/uW1dtPbsbREcVNSbJuUz5Jhttps://video.igem.org/lazy-static/thumbnails/496ef0d5-7fa8-4624-bbc8-aaa2b9ec5908.jpgJLU-CP: Game demo video-Synthesizing large plasmids (2024)JLU-CP: Game demo video-Synthesizing large plasmids (2024)https://static.igem.org/peertube/streaming-playlists/hls/ea4a2dbc-a1a0-48e8-9aaa-bfbeba220456/7473bf10-fb80-4fe3-9eee-4f8da84fb303-master.m3u8https://video.igem.org/videos/embed/uW1dtPbsbREcVNSbJuUz5J210182024-09-12T10:19:53.126ZYES2024 TeamsNOhttps://video.igem.org/w/oiWsmcm7EuRpJMxpgvcnZ4https://video.igem.org/lazy-static/thumbnails/6a21c1fe-51bd-4aaa-8f83-aa065325fdcf.jpgJLU-CP: Music piece 1 (2024) [English]JLU-CP: Music piece 1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/b4aa40d5-1b57-4804-8456-b0bb89426a09/89607ba0-c54c-490f-8b5e-fd597c01b6c9-master.m3u8https://video.igem.org/videos/embed/oiWsmcm7EuRpJMxpgvcnZ449052024-09-12T10:34:08.731ZYES2024 TeamsNOhttps://video.igem.org/w/fUyQSan7tq7aM84Qemrdtuhttps://video.igem.org/lazy-static/thumbnails/aa58ce07-2455-4327-b22a-fa95ee2750d3.jpgJLU-CP: Music piece 2 (2024) [English]JLU-CP: Music piece 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/78b6db70-acd1-40ae-8691-d14a08ff68b2/33253922-ae16-4d9c-8dee-bceede3b4a72-master.m3u8https://video.igem.org/videos/embed/fUyQSan7tq7aM84Qemrdtu47042024-09-12T10:46:41.006ZYES2024 TeamsNOhttps://video.igem.org/w/2NXhj7tmUVPkE3YmAA2aa4https://video.igem.org/lazy-static/thumbnails/10fca4cd-0036-4f83-a0db-12c3ab7f4c28.jpgBielefeld-CeBiTec: Interview with Dr. Cristian-Gabriel Olariu (2024) [German]The interview with Dr. Cristian-Gabriel Olariu, a pediatrician specializing in cystic fibrosis (CF), covers the diagnosis and treatment of young CF patients, starting from newborn screening. Dr. Olariu discusses with us early interventions, including medication and therapies, to protect organs and improve outcomes, as well as the psychological impact on families. Key topics include infection prevention, managing common infections like Pseudomonas, and the importance of a multidisciplinary team approach, combining medical, psychological, and nutritional support. Dr. Olariu also expresses his support for our gene therapy, highlighting its potential to significantly improve patient outcomes. Link to our Wiki: https://2024.igem.wiki/bielefeld-cebitec/ https://static.igem.org/peertube/streaming-playlists/hls/0ea76b9c-9a0e-4f58-8230-31ab6b0e08d9/0c5572c5-79e2-4199-9027-eedcc0f3867b-master.m3u8https://video.igem.org/videos/embed/2NXhj7tmUVPkE3YmAA2aa43715092024-09-14T11:08:56.982ZYES2024 TeamsNOhttps://video.igem.org/w/36cTdiUfTvwGyx7eFhyrY6https://video.igem.org/lazy-static/thumbnails/06dc69fb-d39a-4b51-a7e2-fca5c049a59b.jpgUCopenhagen: Our team takes a picture! (2024) [English]The UCPH iGEM 2024 team takes a picture together, which accidentally was a video.https://static.igem.org/peertube/streaming-playlists/hls/10ec51be-4ca6-40eb-94f0-9c5549b7c5d9/b0f88077-96ae-492d-bae3-ff9a01540a09-master.m3u8https://video.igem.org/videos/embed/36cTdiUfTvwGyx7eFhyrY616082024-09-14T11:01:05.266ZYES2024 TeamsNOhttps://video.igem.org/w/4zAJND1QFcV46xT17J44bXhttps://video.igem.org/lazy-static/thumbnails/418472af-2ca9-4f89-81e8-92ec99ce6937.jpgLeiden: Home video tryout (2024)home tryout videohttps://static.igem.org/peertube/streaming-playlists/hls/1cfc5e52-5c88-4a29-94cc-fcd8303adb3f/9b9b8a24-2886-4bba-9294-a587fdc2d318-master.m3u8https://video.igem.org/videos/embed/4zAJND1QFcV46xT17J44bX14052024-09-14T11:01:21.339ZYES2024 TeamsNOhttps://video.igem.org/w/iZjWHNiMk51GDxeeVuGBkMhttps://video.igem.org/lazy-static/thumbnails/8ee42a00-8120-42f2-9cde-2fe0662ad57d.jpgVilnius-Lithuania: Bioreactor Interface Demo (2024) [English]Video showcasing Vilnius-Lithuania iGEM 2024 team's bioreactor control panel. A demo of the interface can be seen in the video: graphs showing bioreactor's measurements, adjustment of bioreactor controls and an alerting system setup. Wiki page link: https://2024.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/91ac6d2a-9fa6-4049-9e1b-c3b839322947/c4f2217e-fba8-4f48-a96d-02edd8b04581-master.m3u8https://video.igem.org/videos/embed/iZjWHNiMk51GDxeeVuGBkM3301232024-09-15T10:25:31.224ZYES2024 TeamsNOhttps://video.igem.org/w/7EWetsAZnEdpe8QKZL5cfNhttps://video.igem.org/lazy-static/thumbnails/e8d41fa2-7d0c-43a0-9aab-8dc377cc7061.jpgFudan: contribution-header image test (2024) [English]This video is used to test the wiki header image upload function. https://2023.igem.wiki/fudan/https://static.igem.org/peertube/streaming-playlists/hls/3606845e-367d-46e8-ab79-8b89ee7b85a6/dd713e7b-ed7e-4949-95ea-6eee079b6b53-master.m3u8https://video.igem.org/videos/embed/7EWetsAZnEdpe8QKZL5cfN13062024-09-16T15:13:50.351ZtestYES2024 TeamsNOhttps://video.igem.org/w/aNXQYyXcQYiCKCGVKMWskAhttps://video.igem.org/lazy-static/thumbnails/5e7109ee-0a88-4520-906e-db57d5b1b00c.jpgOUC-Haide: Write_CWP (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html To show our protein dynamic behavior.https://static.igem.org/peertube/streaming-playlists/hls/4f70e06f-1bf1-4c86-9df3-2d73eeb2b578/e543b1f4-1dee-46f2-b877-7ade5294fda5-master.m3u8https://video.igem.org/videos/embed/aNXQYyXcQYiCKCGVKMWskA30152024-09-16T18:11:13.837ZYES2024 TeamsNOhttps://video.igem.org/w/7DJpsx9xiz1TTrv4aKkCWJhttps://video.igem.org/lazy-static/thumbnails/ce1b4570-a5b8-4aeb-84b8-e712982306ca.jpgOUC-Haide: Black_CWP (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html To show our protein dynamic behavior.https://static.igem.org/peertube/streaming-playlists/hls/35db7bee-f1ae-4139-a9d6-473bd9cb50fe/41e3a127-52c3-4939-aa70-8b1114db0fb3-master.m3u8https://video.igem.org/videos/embed/7DJpsx9xiz1TTrv4aKkCWJ3072024-09-16T18:12:01.019ZYES2024 TeamsNOhttps://video.igem.org/w/j6DzBGpvctZkGJdux4knQZhttps://video.igem.org/lazy-static/thumbnails/7454d352-eeb2-4258-bdb6-699706a2936c.jpgTsinghua-M: mov1 (2024) [English]Tsinghua-M: mov1 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/928e5fbc-4bda-4fae-86ac-b6b3d68f4095/48214a1a-62fc-4dd1-babe-1fbf5975c839-master.m3u8https://video.igem.org/videos/embed/j6DzBGpvctZkGJdux4knQZ2401192024-09-17T06:39:03.250ZYES2024 TeamsNOhttps://video.igem.org/w/7muBhK9rwjzrX4so1RYbNohttps://video.igem.org/lazy-static/thumbnails/6e6e1308-e2f0-4494-bf3f-070b53ae4e25.jpgTsinghua-M: 10 (2024) [English]Tsinghua-M: 10 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/33735682-7e32-4cf2-9b88-17cb963d663a/182a2a3c-25cd-4078-a802-f7f6f353ee48-master.m3u8https://video.igem.org/videos/embed/7muBhK9rwjzrX4so1RYbNo2082024-09-17T06:44:35.232ZYES2024 TeamsNOhttps://video.igem.org/w/dnn9167gPhCivwtjHoEfXahttps://video.igem.org/lazy-static/thumbnails/cef2eb44-84fe-47b9-b650-32b37256c552.jpgEPFL: Final assembly (2024)Video showing the final assembly of the drone built by the EPFL iGEM 2024 team.https://static.igem.org/peertube/streaming-playlists/hls/64294f50-49bf-4409-841c-fd368c885c67/c29b0242-a4c0-4997-925b-2b4995975a42-master.m3u8https://video.igem.org/videos/embed/dnn9167gPhCivwtjHoEfXa5840102024-09-17T11:42:43.600ZYES2024 TeamsNOhttps://video.igem.org/w/wHevdQo6tUaCbqDm3zThzthttps://video.igem.org/lazy-static/thumbnails/eb2b0dc3-05b9-4b87-bc22-0a020a233c77.jpgEPFL: Main body (2024)Video showing the assembly of the main structure of the drone built by the EPFL iGEM 2024 team.https://static.igem.org/peertube/streaming-playlists/hls/f8b3f9f4-ca17-468f-ae0c-38277911bf9d/177aa079-1c6b-4c16-98b7-d3614978e36b-master.m3u8https://video.igem.org/videos/embed/wHevdQo6tUaCbqDm3zThzt364052024-09-17T13:46:31.953ZYES2024 TeamsNOhttps://video.igem.org/w/2FggDvrNQNUH5CTtrzFR38https://video.igem.org/lazy-static/thumbnails/1b97b8b6-1f92-4aa3-beb7-387c39973b22.jpgBielefeld-CeBiTec: Patch Clamp Measurement (2024)Patch Clamp: Here you can see a micropipette sealing of a HEK293 cell for this electrophysiological measurement.https://static.igem.org/peertube/streaming-playlists/hls/0d948e57-5997-430a-a2df-815b71a2fc67/d1d5ed79-de25-41fc-abe2-60415ab8b98f-master.m3u8https://video.igem.org/videos/embed/2FggDvrNQNUH5CTtrzFR38140642024-09-17T15:07:25.521ZYES2024 TeamsNOhttps://video.igem.org/w/7kR2t6MVdLBcjFD5fJVYJThttps://video.igem.org/lazy-static/thumbnails/4d63533b-c219-4914-ab02-5fc75a260dfe.jpgDTU-Denmark: animation transparent background (2024)This is an animation of how the cell free biosensor works. This animation portraits the T7 polymerase binding to the RNA template and producing the Brocoli aptamer which then gets released and makes complexes with fluorophores and produces fluorescence.https://static.igem.org/peertube/streaming-playlists/hls/335c2d2f-4a1a-4af9-abb1-255c5b8de3bf/8a4f475e-c5cf-4e05-8c73-3e9b9e430771-master.m3u8https://video.igem.org/videos/embed/7kR2t6MVdLBcjFD5fJVYJT180182024-09-17T16:07:18.461ZYES2024 TeamsNOhttps://video.igem.org/w/eKnti6wcm7jwi5qUrNK8LPhttps://video.igem.org/lazy-static/thumbnails/c7992504-7f82-45d8-afa2-d3ac660d54ff.jpgTianjin: mp4_1 (2024)the earthhttps://static.igem.org/peertube/streaming-playlists/hls/6f550433-e197-4d3f-a4e5-5f9bb7a1c75b/595a5fa2-80f1-478d-8098-ba5c44c0ddf3-master.m3u8https://video.igem.org/videos/embed/eKnti6wcm7jwi5qUrNK8LP3542024-09-17T19:09:25.287ZYES2024 TeamsNOhttps://video.igem.org/w/gSLYS2qbGVvDHPk9H2rSS7https://video.igem.org/lazy-static/thumbnails/1734819f-7690-4dc4-8861-3889121f780f.jpgTianjin: mp4_2 (2024)the earthhttps://static.igem.org/peertube/streaming-playlists/hls/808ffd11-871b-44b4-a334-e114bfaf4c7a/91d794a9-37a5-4ff7-bb40-6a56af848706-master.m3u8https://video.igem.org/videos/embed/gSLYS2qbGVvDHPk9H2rSS74022024-09-17T19:16:41.058ZYES2024 TeamsNOhttps://video.igem.org/w/9So9SR2igFUobEhuh81Krhhttps://video.igem.org/lazy-static/thumbnails/d8b6ccfa-c8fa-4318-8542-5b66100b8775.jpgTianjin: mp4_3 (2024) [English]TAICHIhttps://static.igem.org/peertube/streaming-playlists/hls/47d1f338-6594-43df-802e-f447998f9936/641c61fe-eb51-44c2-9a8a-dee5c34817f4-master.m3u8https://video.igem.org/videos/embed/9So9SR2igFUobEhuh81Krh8012024-09-17T19:20:54.043ZYES2024 TeamsNOhttps://video.igem.org/w/7fR2VGJmQX9FfUmmtVxGFohttps://video.igem.org/lazy-static/thumbnails/6ee00128-99f1-4a45-b48f-65d197a83b9d.jpgULC: rap video cells (2024) [English]In these songs, we introduce concepts such as biodiversity, ecosystems, and other topics to raise awareness of the interdependence of nature, with the aim of fostering environmental consciousness and promoting sustainable development. The rhymes are clear and catchy, and the flow is smooth.https://static.igem.org/peertube/streaming-playlists/hls/32a97668-1f6b-4c34-9930-bd6932ce3894/25622dd8-b040-4c24-8964-c8aad800faa7-master.m3u8https://video.igem.org/videos/embed/7fR2VGJmQX9FfUmmtVxGFo150072024-09-18T03:38:52.906ZbiodiversityecosystemsScience Biology EducationYES2024 TeamsNOhttps://video.igem.org/w/c48LWougXEjJTAhhtWt8Lphttps://video.igem.org/lazy-static/thumbnails/adb6af7c-0074-4022-bd2e-37f288b5329e.jpgTU-Eindhoven: HomePage (2024)Home page video for the team TU Eindhoven 2024. https://static.igem.org/peertube/streaming-playlists/hls/59848c46-ac5c-41d7-86f0-3f0b52a3e583/dc8b25e4-7702-45aa-8743-d53c3ef1cc97-master.m3u8https://video.igem.org/videos/embed/c48LWougXEjJTAhhtWt8Lp150172024-09-18T12:09:16.281ZYES2024 TeamsNOhttps://video.igem.org/w/5y8MHz4LUxUh7eoAKP3npUhttps://video.igem.org/lazy-static/thumbnails/78276a08-e8e1-4cd1-9479-1cf0a367da21.jpgIOANNINA: Software Page text to speech (2024) [English]This is a text to speech audio file for the Software Page of our wiki (https://2024.igem.wiki/ioannina/software) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/24e127aa-3186-447c-b0a7-9ae7b2e0e9fe/4af8dea9-5e85-4c4f-9acc-6b0a55d3c657-master.m3u8https://video.igem.org/videos/embed/5y8MHz4LUxUh7eoAKP3npU6040112024-09-18T16:07:12.419ZYES2024 TeamsNOhttps://video.igem.org/w/75J1kCW7M4VyECP8uzzW6Yhttps://video.igem.org/lazy-static/thumbnails/d14c3fb4-fb60-4c4d-b683-cafb1f8f66eb.jpgMunich: progRAM mechanism (2024) [English]Animantion showing how the iGEM Munich 2024 project progRAM works. https://static.igem.org/peertube/streaming-playlists/hls/313fb1ad-b7bb-4a81-ac5b-aa5723a4e3ea/afe03993-75c0-4a46-a886-cbef2d94a973-master.m3u8https://video.igem.org/videos/embed/75J1kCW7M4VyECP8uzzW6Y650242024-09-18T16:39:11.845ZYES2024 TeamsNOhttps://video.igem.org/w/qzkrPXyWukBcejK7R94n6yhttps://video.igem.org/lazy-static/thumbnails/7dc490e9-644b-4d42-ba28-ae7bf02f69f6.jpgUCalgary: Tina Aug Week 4 (2024) [English]UCalgary: Tina Aug Week 4 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/c702db18-1074-46cb-a2d2-4bc66ca070ce/93541a48-a0cc-451c-9f96-d68605a3890b-master.m3u8https://video.igem.org/videos/embed/qzkrPXyWukBcejK7R94n6y7032024-09-19T03:53:05.129ZYES2024 TeamsNOhttps://video.igem.org/w/qSSrpCxbxT8ubifnLoyS2Zhttps://video.igem.org/lazy-static/thumbnails/0aabbbde-cb18-4e53-b13d-a55e4e9991a1.jpgUCalgary: Tina June Week 4 (2024) [English]UCalgary: Tina June Week 4 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/c9759992-e8e7-4e89-b8b5-e6f696b2709b/c15d2aa0-89c7-4033-8144-b47feadc5198-master.m3u8https://video.igem.org/videos/embed/qSSrpCxbxT8ubifnLoyS2Z7042024-09-19T03:53:29.114ZYES2024 TeamsNOhttps://video.igem.org/w/oLM9U5dhGN6eb6DgyxXjQ3https://video.igem.org/lazy-static/thumbnails/a45023ce-b9c7-42f2-9cd1-d95fdf97c7f0.jpgUCalgary: Tina June Week 2 (2024) [English]UCalgary: Tina June Week 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/b8699a69-d946-42cc-a412-0bb6e2da2632/b6df9c78-808a-4f25-b883-4d279d52cd1b-master.m3u8https://video.igem.org/videos/embed/oLM9U5dhGN6eb6DgyxXjQ36022024-09-19T03:53:54.722ZYES2024 TeamsNOhttps://video.igem.org/w/qEKoj44QhaginPKVh1nWDWhttps://video.igem.org/lazy-static/thumbnails/38419cc8-5678-4fc9-9036-dbf45fd59090.jpgDUT: Cellular Homeostasis Balancer (2024) [English]DUT: Cellular Homeostasis Balancer (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/c7c453ee-6c76-4057-8a04-6b7f99d21938/d4cf8ef3-0074-4ea9-8496-5405d20f8163-master.m3u8https://video.igem.org/videos/embed/qEKoj44QhaginPKVh1nWDW120022024-09-19T08:53:22.663ZYES2024 TeamsNOhttps://video.igem.org/w/feVZuJa9TsCPhbNLTFe7NHhttps://video.igem.org/lazy-static/thumbnails/266b8e8a-aa28-47da-95f3-655fcde1ec36.jpgEPFL: Crash (2024)Crash of the drone built by the EPFL iGEM 2024 team.https://static.igem.org/peertube/streaming-playlists/hls/7351e231-9ce8-40bb-89c5-de7d37c1f5c5/251a2add-2e0a-4698-83f7-e268687bb1ef-master.m3u8https://video.igem.org/videos/embed/feVZuJa9TsCPhbNLTFe7NH475402024-09-19T12:12:50.018ZYES2024 TeamsNOhttps://video.igem.org/w/92qgj88mPUBQQFZ1TUyG6dhttps://video.igem.org/lazy-static/thumbnails/5b1be092-88fd-4454-8018-f40dd5e0a233.jpgTU-Eindhoven: PROMISE Pipeline Software - Overview (2024) [English]This video shows the software that the iGEM TU/e 2024 team developed to help them build bioinformatics pipelines. They used this software in order to predict neoantigens from genetic data. More information about this application can be found at the wiki: https://2024.igem.wiki/tu-eindhoven/ This video is a high level overview showing the layout without any additional explanation. More information can be found on the project Gitlab: https://gitlab.igem.org/2024/software-tools/tu-eindhovenhttps://static.igem.org/peertube/streaming-playlists/hls/40fbce68-1ce0-44dc-908c-5f83370ddf6e/bdab2eea-2f56-4548-b7c6-055d06e56bd2-master.m3u8https://video.igem.org/videos/embed/92qgj88mPUBQQFZ1TUyG6d1345142024-09-19T12:17:46.412ZYES2024 TeamsNOhttps://video.igem.org/w/rE7wKhhzFgJk5GokvJaRP7https://video.igem.org/lazy-static/thumbnails/ee29fcfa-c94f-4a2c-afb9-41c403031660.jpgEPFL: FPV (2024)First person view of flights with the drone built by the EPFL iGEM 2024 team.https://static.igem.org/peertube/streaming-playlists/hls/cfc6c10b-78e8-4ce6-bf4f-26270d3cab78/090398a2-d958-4743-ac22-1a6e4281c52e-master.m3u8https://video.igem.org/videos/embed/rE7wKhhzFgJk5GokvJaRP71990272024-09-19T12:22:58.807ZYES2024 TeamsNOhttps://video.igem.org/w/34MBjRtEMth672Yn5wf63whttps://video.igem.org/lazy-static/thumbnails/748e0165-ac11-42c9-99a7-b493669f2805.jpgEPFL: Spraying (2024)Demonstration of the spraying system in action on the drone built by the EPFL iGEM 2024 team.https://static.igem.org/peertube/streaming-playlists/hls/10b99dbf-c3b1-4f83-a89c-6144d2457f16/893ca266-e327-4429-ba57-a759d5f35370-master.m3u8https://video.igem.org/videos/embed/34MBjRtEMth672Yn5wf63w290352024-09-23T11:22:32.878ZYES2024 TeamsNOhttps://video.igem.org/w/bZdskuMd1Y89aCrWF41xQYhttps://video.igem.org/lazy-static/thumbnails/3fc540f0-b36f-48ec-9ef9-0486935715bd.jpgEPFL: Demo flight (2024)Demonstration flight of the drone built by the EPFL iGEM 2024 team.https://static.igem.org/peertube/streaming-playlists/hls/58f874e2-b1ce-47f2-8237-2968f1a0b304/90664e3c-07c0-48d8-a6bb-1fd8de8533b2-master.m3u8https://video.igem.org/videos/embed/bZdskuMd1Y89aCrWF41xQY910912024-09-19T15:57:45.764ZYES2024 TeamsNOhttps://video.igem.org/w/dmZZPwn9xyCjYxym6ebFdhhttps://video.igem.org/lazy-static/thumbnails/5f528be4-5869-4765-922d-7f4a88730eab.jpgHiZJU-China: The Saccharomyces cerevisiae BY4741 FLO11+ strains adheres to the agar plate of YPD ...This video is showing the logo of HiZJU-CHina. This is our link:https://2024.igem.wiki/hizju-china/https://static.igem.org/peertube/streaming-playlists/hls/641c47fa-cc2d-4e4b-999a-365100df22c4/f4eb8545-bb30-4b14-9202-e03105aa0d16-master.m3u8https://video.igem.org/videos/embed/dmZZPwn9xyCjYxym6ebFdh410212024-09-19T15:47:32.656ZYES2024 TeamsNOhttps://video.igem.org/w/mUYdGMnx64x3HTGdMv4acXhttps://video.igem.org/lazy-static/thumbnails/174d2e6b-6689-419a-b4ae-21f1260040b1.jpgHiZJU-China: Fluidity of the K1 carrier in the initial model (2024)Fluidity of the K1 carrier in the initial model. This is our teams wiki link:https://2024.igem.wiki/hizju-china/https://static.igem.org/peertube/streaming-playlists/hls/a95c186e-dd72-465a-bb52-f893d4792b61/dd924e5b-8402-45f6-b2d1-15ddd1d06753-master.m3u8https://video.igem.org/videos/embed/mUYdGMnx64x3HTGdMv4acX50282024-09-19T15:48:05.139ZYES2024 TeamsNOhttps://video.igem.org/w/oMyPndA7i2NU6g3iLkeCd6https://video.igem.org/lazy-static/thumbnails/e6f5d401-fcf8-4973-8aef-0132eb2cef75.jpgOUC-Haide: 1 Feed feeding simulation (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html Hardware model -- 'Feed feeding simulation'https://static.igem.org/peertube/streaming-playlists/hls/b885be80-9e6a-4f3e-9f95-8d86bfafffc5/a8b49263-05d6-48be-8879-6c738172e722-master.m3u8https://video.igem.org/videos/embed/oMyPndA7i2NU6g3iLkeCd611042024-09-20T15:54:23.053ZYES2024 TeamsNOhttps://video.igem.org/w/c1JuFRfJu8hXVTvv9E91Phhttps://video.igem.org/lazy-static/thumbnails/6d34c421-416e-4095-b08c-23615996dd64.jpgOUC-Haide: 2 First generation feeder simulation (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html Hardware model -- 'First generation feeder simulation'https://static.igem.org/peertube/streaming-playlists/hls/592eb6a7-4d5d-4508-9b20-7e4b2d066016/201e1eb9-51d4-4259-9225-8afb19515699-master.m3u8https://video.igem.org/videos/embed/c1JuFRfJu8hXVTvv9E91Ph10072024-09-20T15:55:12.908ZYES2024 TeamsNOhttps://video.igem.org/w/aU6UjhtSgsC49LFF2UGgLNhttps://video.igem.org/lazy-static/thumbnails/67c19c99-4ea1-4ac3-af80-621ef717b48d.jpgOUC-Haide: 3 Second generation feeder simulation (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html Hardware model -- 'Second generation feeder simulation'https://static.igem.org/peertube/streaming-playlists/hls/50288fab-5dc8-4fa0-b4f4-7c7f104017a2/c109b52c-64fe-468a-898b-614a0d4ecb82-master.m3u8https://video.igem.org/videos/embed/aU6UjhtSgsC49LFF2UGgLN110102024-09-20T15:56:32.695ZYES2024 TeamsNOhttps://video.igem.org/w/tXftJvSvA8Pr62YCYaSsgfhttps://video.igem.org/lazy-static/thumbnails/ebd8a73a-b1f3-42ac-9fb4-449e55000d18.jpgOUC-Haide: 4 Three generation feeder simulation (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html Hardware model -- 'Three generation feeder simulation'https://static.igem.org/peertube/streaming-playlists/hls/e25d92da-ba7b-410f-a2dc-78a92c47017c/7d7b4d0a-ccd9-4da5-99ec-3cd71ce09a88-master.m3u8https://video.igem.org/videos/embed/tXftJvSvA8Pr62YCYaSsgf140202024-09-20T15:57:41.468ZYES2024 TeamsNOhttps://video.igem.org/w/s7xNbg9NT242S2UPLdr24Phttps://video.igem.org/lazy-static/thumbnails/7a95e7ce-013e-4067-8edf-1e6714d07dd9.jpgOUC-Haide: 5 Fourth generation feeder simulation (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html Hardware model -- 'Fourth generation feeder simulation'https://static.igem.org/peertube/streaming-playlists/hls/d377a9b0-e936-4042-b8dd-b2f4cd3b78e9/a11b11b3-32be-4fd8-adfa-b52d40e67a57-master.m3u8https://video.igem.org/videos/embed/s7xNbg9NT242S2UPLdr24P180152024-09-20T15:58:37.450ZYES2024 TeamsNOhttps://video.igem.org/w/vHRmGLPmxt298Y4CMih1vUhttps://video.igem.org/lazy-static/thumbnails/5458b85a-bdf1-438c-827e-bd217bf41f08.jpgOUC-Haide: 6 Final model (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html Hardware model -- 'Final feeder model'https://static.igem.org/peertube/streaming-playlists/hls/f0b0eed9-b6f7-487e-8936-b08814b55af6/f84717f6-0702-4979-86c8-d88742793716-master.m3u8https://video.igem.org/videos/embed/vHRmGLPmxt298Y4CMih1vU230162024-09-20T16:00:02.476ZYES2024 TeamsNOhttps://video.igem.org/w/e3qwQP3zAjwTc9tbbVyWRUhttps://video.igem.org/lazy-static/thumbnails/e1ec40b8-5c1c-4c97-b1ef-c9405f721f62.jpgOUC-Haide: 7 Monitoring (2024)OUC-Haide: https://2024.igem.wiki/ouc-haide/index.html Hardware model -- 'Monitor'https://static.igem.org/peertube/streaming-playlists/hls/699d6889-8a86-4edf-bd8a-74c663f8be76/5716bef5-0679-418d-b24d-e3f370d1e7f0-master.m3u8https://video.igem.org/videos/embed/e3qwQP3zAjwTc9tbbVyWRU180132024-09-20T16:00:55.681ZYES2024 TeamsNOhttps://video.igem.org/w/r5pdpQ2ANQd47P9sDxkbhvhttps://video.igem.org/lazy-static/thumbnails/0d71d4ff-52af-4d88-8750-a283e2663aee.jpgIOANNINA: Oliver And The Adventure Of ATROPOS Audiobook (2024) [English]This is the English version of the Audiobook for our story book: Oliver And The Adventure Of ATROPOS.https://static.igem.org/peertube/streaming-playlists/hls/cb11bf69-783f-4915-8cf1-06a2e337faad/37185154-90c4-476f-9045-67867f382959-master.m3u8https://video.igem.org/videos/embed/r5pdpQ2ANQd47P9sDxkbhv367072024-09-20T16:22:16.701ZYES2024 TeamsNOhttps://video.igem.org/w/dzBQaT63o2kELMTX8ajVH1https://video.igem.org/lazy-static/thumbnails/f3a766c0-30bd-4a37-8aee-b4fb96009600.jpgIOANNINA: Oliver And The Adventure Of ATROPOS Audiobook (2024) [Greek]This is the Greek version of the Audiobook for our story book: Oliver And The Adventure Of ATROPOS.https://static.igem.org/peertube/streaming-playlists/hls/65df4a28-1b82-4efe-8ab6-1ce2949f79be/c588dbb1-0721-439d-9408-7bb9ad0b9857-master.m3u8https://video.igem.org/videos/embed/dzBQaT63o2kELMTX8ajVH1356012024-09-20T16:30:51.239ZYES2024 TeamsNOhttps://video.igem.org/w/umKratLUhCBxNhhUCPCEUQhttps://video.igem.org/lazy-static/thumbnails/0327f2d5-3086-4a19-83ca-440e900b3411.jpgIOANNINA: Oliver And The Adventure Of ATROPOS Audiobook (2024) [Spanish]This is the Spanish version of the Audiobook for our story book: Oliver And The Adventure Of ATROPOS.https://static.igem.org/peertube/streaming-playlists/hls/e5a58662-9c45-4efb-ba23-48cf3e327a60/2445c7b1-9d2c-430c-b636-c0bcd8289d28-master.m3u8https://video.igem.org/videos/embed/umKratLUhCBxNhhUCPCEUQ410082024-09-20T16:43:46.843ZYES2024 TeamsNOhttps://video.igem.org/w/gx5zfZxr1Jr4hckirr6vLphttps://video.igem.org/lazy-static/thumbnails/55295d5e-a957-45c3-aa20-bc85844b0b80.jpgIOANNINA: School presentations (2024) [Greek]This is a video showcasing school presentations that iGEM Ioannina 2024 did as part of Human Practice Activities.https://static.igem.org/peertube/streaming-playlists/hls/7dcff48a-b2d7-4f0b-952f-82876b447ddb/7c62f1e5-30ed-40f3-99b7-9f14bc56ea9c-master.m3u8https://video.igem.org/videos/embed/gx5zfZxr1Jr4hckirr6vLp990132024-09-20T16:52:04.682ZYES2024 TeamsNOhttps://video.igem.org/w/jNC59AT151RJgPVjakfY1Shttps://video.igem.org/lazy-static/thumbnails/c96a20fb-aceb-4e46-89ff-9beea892246e.jpgIOANNINA: Instagram showcase (2024)This is a video showcasing the Instagram account used by iGEM Ioannina 2024, for use in our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/9846f06d-2372-4d87-a58b-8be097168b12/51a9113f-6c58-459d-865e-8f5d732b6efd-master.m3u8https://video.igem.org/videos/embed/jNC59AT151RJgPVjakfY1S62082024-09-20T16:58:36.675ZYES2024 TeamsNOhttps://video.igem.org/w/8Gkn8LgB6cjVTpwMLYuQ7Ehttps://video.igem.org/lazy-static/thumbnails/d457d36b-e5cb-4ad6-9393-a96679f8da27.jpgHiZJU-China: The video of MBBR-MABR tandem operation (2024)The video of MBBR-MABR tandem operation. This is our team wiki link:https://2024.igem.wiki/hizju-china/https://static.igem.org/peertube/streaming-playlists/hls/3e51a7b7-5364-4130-9838-f67cd00c34e2/c5964aee-0950-47ba-9abb-a1444b24e8f5-master.m3u8https://video.igem.org/videos/embed/8Gkn8LgB6cjVTpwMLYuQ7E90262024-09-20T16:56:49.167ZYES2024 TeamsNOhttps://video.igem.org/w/dB4KTaTEe9PswV1X4Xpw4qhttps://video.igem.org/lazy-static/thumbnails/9432db51-6dbe-4f9a-ab9b-ddc51640398c.jpgMunich: From Code to Life, The role of AI in modern biology (2024) [English]Panel discussion “From Code to Life - The role of AI in modern biology”, held 12.09.24, moderated by Nika Kobetic and Lucas Mair. From left to right: Lucas Mair, Prof. Dr. Kristian Unger, Prof. Dr. Antonella Di Pizio, Maximilian Braun, Prof. Dr. Wiktor Mlynarski. https://static.igem.org/peertube/streaming-playlists/hls/661302cd-afd4-471a-aceb-319f3ee14ca6/cce30be2-0328-4300-9eaf-207da246d649-master.m3u8https://video.igem.org/videos/embed/dB4KTaTEe9PswV1X4Xpw4q73930142024-09-22T17:16:38.403ZYES2024 TeamsNOhttps://video.igem.org/w/xoxMEmB8zUYDt4p6BFU3D5https://video.igem.org/lazy-static/thumbnails/75d042d8-4156-4b9e-8e6d-ac868a15a635.jpgIOANNINA: ON AIR podcast Episode 1 (2024) [Greek]The first episode of our ON AIR podcast.https://static.igem.org/peertube/streaming-playlists/hls/fe314041-5694-431f-988e-ea8b9ea00ade/352d7946-1d53-4c01-884e-6c1b511701a6-master.m3u8https://video.igem.org/videos/embed/xoxMEmB8zUYDt4p6BFU3D51463012024-09-20T19:54:57.679ZYES2024 TeamsNOhttps://video.igem.org/w/q2BUr5pHksRE52iEFEm5jkhttps://video.igem.org/lazy-static/thumbnails/a57d398e-df38-486f-9bd9-bc14a52e9958.jpgRochester: Education Video (2024) [English]Science experiment used to educate the Rochester Communityhttps://static.igem.org/peertube/streaming-playlists/hls/c29532bf-d446-4e47-858a-f3cba21b6897/4669643f-72bc-464c-a51e-57ebd1de6a11-master.m3u8https://video.igem.org/videos/embed/q2BUr5pHksRE52iEFEm5jk7012024-09-23T11:20:54.080ZYES2024 TeamsNOhttps://video.igem.org/w/1j7joWV77oNwPxxV7xJs83https://video.igem.org/lazy-static/thumbnails/0788f621-0faf-4089-9fb3-8fc6441848b2.jpgIOANNINA: ON AIR podcast Episode 2 - Interview with Christina Nalbanti (former patient with WNV) ...The second episode of our ON AIR podcast, where we interview Christina Nalbanti a former patient with WNV.https://static.igem.org/peertube/streaming-playlists/hls/028747ec-7766-499c-ab42-08b2f4789640/5f600a02-1a8b-434d-b559-ad2facf0f387-master.m3u8https://video.igem.org/videos/embed/1j7joWV77oNwPxxV7xJs831996082024-09-20T20:18:17.187ZYES2024 TeamsNOhttps://video.igem.org/w/rxNbpuwiytUPoCWH5uhjCqhttps://video.igem.org/lazy-static/thumbnails/02e08716-2cde-48b7-91eb-5ff33d5cc301.jpgMunich: Stop-Motion Animation of a 3D puzzle game on the central dogma (2024)The iGEM Munich team is excited to present a 3D puzzle game centered around the central dogma of molecular biology, which we've designed, prototyped, and tested in schools with diverse age groups and class sizes. You can find the design available for download on our wiki at https://2024.igem.wiki/munich/. It is compatible with most 3D printers. The puzzle is fully customizable and comes with a handbook offering different game variations that can be tailored to suit various age ranges. Our video demonstrates the puzzle's core functions, including the processes of DNA replication, transcription, and translation. The unique magnetic mechanism ensures only the correct codon-amino acid pairs can be assembled.https://static.igem.org/peertube/streaming-playlists/hls/cee4fb80-d12c-4576-812d-942a921ebec8/d225375b-9948-4bdd-baf5-9a893a2fb0fb-master.m3u8https://video.igem.org/videos/embed/rxNbpuwiytUPoCWH5uhjCq370382024-09-21T11:15:58.798ZYES2024 TeamsNOhttps://video.igem.org/w/nsmwezHFo9LMQws8urB2wohttps://video.igem.org/lazy-static/thumbnails/26dedd84-9ff2-4be6-94c3-37d4709dc814.jpgTsinghua-M: The Adventures of the Cat (2024) [English]Tsinghua-M: The Adventures of the Cat (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/adbde585-6b85-431b-a44b-26990ced5a4e/b6453b23-17aa-4e60-9dff-ff7b43d28b33-master.m3u8https://video.igem.org/videos/embed/nsmwezHFo9LMQws8urB2wo1320142024-09-21T08:13:01.308ZYES2024 TeamsNOhttps://video.igem.org/w/9TtkzrEg2GqcGA22Pjbomchttps://video.igem.org/lazy-static/thumbnails/b561d87b-f62a-4f4c-a92b-cb4d00f68db5.jpgSUSTechOCEAN: video1 (2024) [Chinese]SUSTechOCEAN: video1 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/47f8e38e-f007-4d29-b7c5-ed247c2cdd7b/642bb93b-db3f-4af5-97e7-c85f1a67ac17-master.m3u8https://video.igem.org/videos/embed/9TtkzrEg2GqcGA22Pjbomc50162024-09-21T12:15:04.985ZYES2024 TeamsNOhttps://video.igem.org/w/eVxrjT972sRieVuYSPryjKhttps://video.igem.org/lazy-static/thumbnails/980ca15c-67b1-4535-84f8-d964977f86b4.jpgSUSTechOCEAN: video2 (2024) [Chinese]SUSTechOCEAN: video2 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/70c0988d-b2af-44ba-a97a-d8b8a3bf2cd7/09e349d8-b4af-4878-90ae-5977c74e9f9f-master.m3u8https://video.igem.org/videos/embed/eVxrjT972sRieVuYSPryjK10002024-09-21T12:16:49.156ZYES2024 TeamsNOhttps://video.igem.org/w/4Dgi3vn42YxPsN9mGkNViXhttps://video.igem.org/lazy-static/thumbnails/087a9104-f744-4f5b-9970-8eff1b3d65e9.jpgSUSTechOCEAN: video3 (2024) [Chinese]SUSTechOCEAN: video3 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/1d7f5c52-d5cb-4c2e-a0e8-ef558b88dfe5/0466c976-0231-4b3d-be70-e75175682a68-master.m3u8https://video.igem.org/videos/embed/4Dgi3vn42YxPsN9mGkNViX5012024-09-21T12:18:08.617ZYES2024 TeamsNOhttps://video.igem.org/w/qMXB1MSas8C9ohypBvPfBmhttps://video.igem.org/lazy-static/thumbnails/69dfe4f5-593f-4035-b147-3d8fd3f37259.jpgSUSTechOCEAN: video4 (2024) [Chinese]SUSTechOCEAN: video4 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/c8c61081-929f-4ac4-82d9-e19a168498c2/6bddc193-1893-4864-86a2-ed00e8636eda-master.m3u8https://video.igem.org/videos/embed/qMXB1MSas8C9ohypBvPfBm8002024-09-21T12:18:35.974ZYES2024 TeamsNOhttps://video.igem.org/w/sEzVMyiiiBd145HAKPJczghttps://video.igem.org/lazy-static/thumbnails/db4e48bf-de07-4936-9f2b-b9b7ebcc5417.jpgSUSTechOCEAN: video5 (2024) [Chinese]SUSTechOCEAN: video5 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/d7f0c6e1-d06d-48f3-9dac-3c63f41f2f75/eaf765fc-4938-4420-8890-35cc255b2e94-master.m3u8https://video.igem.org/videos/embed/sEzVMyiiiBd145HAKPJczg4012024-09-21T12:19:07.634ZYES2024 TeamsNOhttps://video.igem.org/w/qtXqguFArCQ3ePqAWVRerAhttps://video.igem.org/lazy-static/thumbnails/16009a7e-7e24-4695-aa53-3c0e88f8b3d5.jpgSUSTechOCEAN: video6 (2024) [Chinese]SUSTechOCEAN: video6 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/c6428ffb-8532-4169-ac58-b1c1cadc2fd8/4353b4c8-a8d1-4666-af17-ff04a180a245-master.m3u8https://video.igem.org/videos/embed/qtXqguFArCQ3ePqAWVRerA8012024-09-21T12:19:38.278ZYES2024 TeamsNOhttps://video.igem.org/w/26NGhwkbiaCP79MuFEBkBthttps://video.igem.org/lazy-static/thumbnails/05db9074-81ef-43ad-9947-57c40e4f76c8.jpgSUSTechOCEAN: video7 (2024) [Chinese]SUSTechOCEAN: video7 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/08e8a251-b555-4f6f-8009-718ac0f6086d/2480b99e-ebf6-4e2e-a175-557fa05e8f08-master.m3u8https://video.igem.org/videos/embed/26NGhwkbiaCP79MuFEBkBt7002024-09-21T12:20:12.535ZYES2024 TeamsNOhttps://video.igem.org/w/bVYip7YidKweNL8zuSz9LDhttps://video.igem.org/lazy-static/thumbnails/a754e0b3-35d3-4e71-8ac4-74a810f4e6e8.jpgSUSTechOCEAN: video8 (2024) [Chinese]SUSTechOCEAN: video8 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/588480a4-09f9-4fb7-b33e-85cce6e700c5/1f82c504-d909-43c6-8f77-2a843e36d6c8-master.m3u8https://video.igem.org/videos/embed/bVYip7YidKweNL8zuSz9LD9002024-09-21T12:20:57.697ZYES2024 TeamsNOhttps://video.igem.org/w/jVw1XyS1GvuSCCx6nCikKuhttps://video.igem.org/lazy-static/thumbnails/777afa66-ac51-4462-a30d-0210f004fc26.jpgSUSTechOCEAN: video9 (2024) [Chinese]SUSTechOCEAN: video9 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/993d69fd-a04f-402f-8704-f3eec27dc54e/aa6b93f0-d355-4d4b-95e5-8f7780d0d0e0-master.m3u8https://video.igem.org/videos/embed/jVw1XyS1GvuSCCx6nCikKu6012024-09-21T12:21:32.745ZYES2024 TeamsNOhttps://video.igem.org/w/4YKeFZSkU2em1sq7Nc9GTGhttps://video.igem.org/lazy-static/thumbnails/7b1a022e-fe40-44ed-b2a2-8ab65c9dba33.jpgSUSTechOCEAN: video10 (2024)SUSTechOCEAN: video10 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/2037b655-f0bd-4dd8-9829-b961a70e6086/5d4c243f-d966-418c-a1dd-aa81ab70827d-master.m3u8https://video.igem.org/videos/embed/4YKeFZSkU2em1sq7Nc9GTG6022024-09-21T12:21:57.621ZYES2024 TeamsNOhttps://video.igem.org/w/27tZ6tHhB6CXUDc4VtK3oihttps://video.igem.org/lazy-static/thumbnails/0ef23714-67de-450c-abca-f4a7143911fa.jpgCJUH-JLU-China: Cardiac Health Exercises (2024) [English]CJUH-JLU-China Team designed Cardiac Health Exercises originally.https://static.igem.org/peertube/streaming-playlists/hls/0900d8e6-c456-4e70-89fc-03c83b75de1d/0e981c1d-6c17-4f6b-9e14-9bc64d07e94c-master.m3u8https://video.igem.org/videos/embed/27tZ6tHhB6CXUDc4VtK3oi1240322024-09-21T15:35:37.917ZYES2024 TeamsNOhttps://video.igem.org/w/iyrcuzXx8u2JHTt96APrA9https://video.igem.org/lazy-static/thumbnails/d7dd17b1-47ce-4e47-b010-ad8fc84a62d6.jpgECUST: home01 (2024) [English]home video01 https://2024.igem.wiki/ECUST/https://static.igem.org/peertube/streaming-playlists/hls/8e32afd0-5d16-4b6e-9e73-a378ca6a8058/7f9b9b76-f2f9-4f5d-9307-dc7f3e23a9a4-master.m3u8https://video.igem.org/videos/embed/iyrcuzXx8u2JHTt96APrA9110302024-09-21T16:47:14.600ZYES2024 TeamsNOhttps://video.igem.org/w/qU8KqTiADzLRRvP1DEAQgihttps://video.igem.org/lazy-static/thumbnails/518494b1-4b6b-4c09-a9ff-750b7a6d3e5f.jpgECUST: home02 (2024) [English]home video02 https://2024.igem.wiki/ECUST/https://static.igem.org/peertube/streaming-playlists/hls/c9a2c77b-d03f-4b9a-a8e1-d47a1a5f7c87/f872754f-e6ec-4c99-9e21-ddb74d92bee8-master.m3u8https://video.igem.org/videos/embed/qU8KqTiADzLRRvP1DEAQgi11012024-09-21T16:48:21.626ZYES2024 TeamsNOhttps://video.igem.org/w/i8ChiX2cNskApgovpVjN7Fhttps://video.igem.org/lazy-static/thumbnails/b205265d-37d8-4ed2-9fc5-edebbf2dfdc8.jpgVIT-V: BCH_Properties (2024)VIT-V: BCH_Properties (2024)https://static.igem.org/peertube/streaming-playlists/hls/8abbec35-8f38-44cd-a121-1a251d435bbb/61adbfac-b08e-4b88-be2b-d04d943799b4-master.m3u8https://video.igem.org/videos/embed/i8ChiX2cNskApgovpVjN7F3501212024-09-22T12:36:53.391ZYES2024 TeamsNOhttps://video.igem.org/w/uvQGA1DdB9ko4VaacXAzrBhttps://video.igem.org/lazy-static/thumbnails/4474ea42-1a51-4d40-b164-34be8d31bc98.jpgVIT-V: BCH_Protein (2024)VIT-V: BCH_Protein (2024)https://static.igem.org/peertube/streaming-playlists/hls/e6ea76cf-af68-4a38-bae3-821aa03e76d1/0bc1bb5b-e651-4233-b487-0eaa078e35e1-master.m3u8https://video.igem.org/videos/embed/uvQGA1DdB9ko4VaacXAzrB100172024-09-22T06:45:45.719ZYES2024 TeamsNOhttps://video.igem.org/w/qszpXherit59iXxiASV2eUhttps://video.igem.org/lazy-static/thumbnails/34e13cbc-50f0-4764-bf2e-81dbacc9d991.jpgVIT-V: ZEP_Properties (2024)VIT-V: ZEP_Properties (2024)https://static.igem.org/peertube/streaming-playlists/hls/c61141e1-3c28-45ba-9173-6d35944977b2/743a27a0-db36-4087-a69f-345c25b23c78-master.m3u8https://video.igem.org/videos/embed/qszpXherit59iXxiASV2eU3801202024-09-22T06:46:58.676ZYES2024 TeamsNOhttps://video.igem.org/w/cHNuHoRc4vdDA8yphUMfuAhttps://video.igem.org/lazy-static/thumbnails/5579b8b4-758c-4bba-b00e-503f9dd0fedf.jpgVIT-V: ZEP_Protein (2024)VIT-V: ZEP_Protein (2024)https://static.igem.org/peertube/streaming-playlists/hls/5eeaac65-f798-4205-9a29-b9396d98177a/33325bba-c9fe-4218-b1ac-edf7611d480c-master.m3u8https://video.igem.org/videos/embed/cHNuHoRc4vdDA8yphUMfuA1401182024-09-22T06:48:27.074ZYES2024 TeamsNOhttps://video.igem.org/w/w7i9DCxWeWnKaAfBtttGpohttps://video.igem.org/lazy-static/thumbnails/6e617cfc-dd59-49a9-8d2b-637342d7a616.jpgIOANNINA: Radio Interview ERT Echo (2024) [Greek]A radio interview featuring iGEM Ioannina members at the ERT Echo radio show.https://static.igem.org/peertube/streaming-playlists/hls/f3d330e1-5ad7-4a15-8c36-6570113beb74/a3e2e965-c00a-4393-87a5-fb5efc63207f-master.m3u8https://video.igem.org/videos/embed/w7i9DCxWeWnKaAfBtttGpo836032024-09-22T08:45:26.618ZYES2024 TeamsNOhttps://video.igem.org/w/dqy6maDvqd8eMDJMJ1SsjNhttps://video.igem.org/lazy-static/thumbnails/b49bd635-987e-4296-86ac-8e28433f97af.jpgAFCM-Egypt: new SDG-18 (2024) [English]AFCM-Egypt team is proud to present our proposal for a new Sustainable Development Goal (SDG) focused on "Ensuring Fire Safety and Minimizing Global Burn Injuries." This initiative aims to address a critical yet often neglected public health issue, particularly in low- and middle-income countries where burn injuries pose a significant burden. Our proposal has presented ambitious targets to reduce fire fatalities and injuries, significantly improve fire safety infrastructure, and increase equitable access to burn treatment and rehabilitation. While this project is for the iGEM competition, its impact goes beyond the realms of the competition itself. By aligning our efforts with the broader global agenda for sustainable development, we hope to foster meaningful collaborations that catalyze systemic changes in fire safety practices and healthcare accessibility. Our commitment to this cause not only aims to protect vulnerable populations but also to contribute to environmental sustainability and economic resilience. We envision a future where fire safety is prioritized and burn injuries minimized through innovative solutions that involve communities, leading to improved health outcomes of many people across the globe.https://static.igem.org/peertube/streaming-playlists/hls/649b4abb-63b3-4bbf-a8a9-d720d2dc573a/d645fcfc-6bc0-4ec3-beb9-f7b5fef0ca44-master.m3u8https://video.igem.org/videos/embed/dqy6maDvqd8eMDJMJ1SsjN1510252024-09-23T08:18:50.750ZYES2024 TeamsNOhttps://video.igem.org/w/73NnPeK9w5siDZnPmtoN3Phttps://video.igem.org/lazy-static/thumbnails/3188d530-156a-4aab-97c9-72ee217c456e.jpgZQT-Nanjing: Basic knowledge of E. coli (2024) [Chinese]education video, https://2024.igem.wiki/zqt-nanjing/educationhttps://static.igem.org/peertube/streaming-playlists/hls/30fae658-e1d8-42d0-9a56-b2879b2e3efb/b0df5d9a-489a-4042-a521-4ac7a4bcef5f-master.m3u8https://video.igem.org/videos/embed/73NnPeK9w5siDZnPmtoN3P243012024-09-23T11:33:53.660ZYES2024 TeamsNOhttps://video.igem.org/w/qrtgEegEjgQgADXH94p5gThttps://video.igem.org/lazy-static/thumbnails/955128a4-3199-4778-ae69-bc05359f66ca.jpgZQT-Nanjing: Sociocultural Diet and microbiome structure Differences (2024) [Chinese]education video, https://2024.igem.wiki/zqt-nanjing/educationhttps://static.igem.org/peertube/streaming-playlists/hls/c5e9ba52-1509-4016-a4d9-06cba907ecb1/632e520a-dc46-4f0f-99dd-730231461930-master.m3u8https://video.igem.org/videos/embed/qrtgEegEjgQgADXH94p5gT328012024-09-23T11:50:35.828ZYES2024 TeamsNOhttps://video.igem.org/w/bizYRTwdstmb4turTj7brAhttps://video.igem.org/lazy-static/thumbnails/b12df6fa-73d5-425f-b7d2-b1784fe05442.jpgUPF-Barcelona: Education (2024) [Catalan]Our talk with Salas i Xandri, a teacher perspective.https://static.igem.org/peertube/streaming-playlists/hls/536ff8c9-63b8-4301-9fb6-96fe62ea8364/e1210fbf-2b15-4b3b-9b1c-09c7bc4aa282-master.m3u8https://video.igem.org/videos/embed/bizYRTwdstmb4turTj7brA280192024-09-23T11:32:05.255ZYES2024 TeamsNOhttps://video.igem.org/w/vTaj74eAvddbf2m8t4wTJyhttps://video.igem.org/lazy-static/thumbnails/f6327b88-24c3-4334-be42-8abc15bf9c86.jpgZQT-Nanjing: Immune system (2024) [Chinese]education video, https://2024.igem.wiki/zqt-nanjing/educationhttps://static.igem.org/peertube/streaming-playlists/hls/f1fdb135-85b4-4952-b10d-de652f207a50/2426f81c-ed26-48d2-aeaa-16d6158bf7dd-master.m3u8https://video.igem.org/videos/embed/vTaj74eAvddbf2m8t4wTJy279002024-09-23T13:34:58.658ZYES2024 TeamsNOhttps://video.igem.org/w/dFBBZqr8YxLYt6AzgCs9Qhhttps://video.igem.org/lazy-static/thumbnails/93119f0d-3f01-48d9-894c-0decc58b210a.jpgSDU-Denmark: Interview A - clip 1 (2024) [Danish]This is a clip of one of the interviews we have done with patients with endometriosis. https://static.igem.org/peertube/streaming-playlists/hls/66b59f74-a87a-4c96-a888-d5764772dd00/967a1cf7-fb74-499c-b20a-1b713def04b4-master.m3u8https://video.igem.org/videos/embed/dFBBZqr8YxLYt6AzgCs9Qh37072024-09-23T13:07:07.138ZYES2024 TeamsNOhttps://video.igem.org/w/jZtzw3VB2JSJggA3VhmCwLhttps://video.igem.org/lazy-static/thumbnails/f646df66-7fca-4056-af91-875e71f1a29e.jpgZQT-Nanjing: gut and inflammation (2024) [Chinese]education video,https://2024.igem.wiki/zqt-nanjing/educationhttps://static.igem.org/peertube/streaming-playlists/hls/99cae2e1-83c5-4cf4-a310-ea9b9d2614c8/47418729-9bc9-47fc-9b2b-5dbfcca6d24f-master.m3u8https://video.igem.org/videos/embed/jZtzw3VB2JSJggA3VhmCwL411012024-09-23T13:59:13.861ZYES2024 TeamsNOhttps://video.igem.org/w/ce8u9dHfvCvmL4Me6LwSG6https://video.igem.org/lazy-static/thumbnails/8f5b8f3e-2370-4b38-a23f-d7d14b3a03c2.jpgZQT-Nanjing: cystic fibrosis (2024) [Chinese]education video, https://2024.igem.wiki/zqt-nanjing/educationhttps://static.igem.org/peertube/streaming-playlists/hls/5ae9cea3-f7a7-4d5c-bc76-87bd8ab0326d/9770c5c6-364f-4d77-8187-6d932ce0474e-master.m3u8https://video.igem.org/videos/embed/ce8u9dHfvCvmL4Me6LwSG6480092024-09-23T14:25:08.639ZYES2024 TeamsNOhttps://video.igem.org/w/4TceyrCrpKvjp2VU5EWVKWhttps://video.igem.org/lazy-static/thumbnails/0880e7eb-fe2d-4041-ac31-aa18a146b26c.jpgBolivia: demonstration of use of mercury device (2024) [English]This video demonstrates how to use the mercury device.https://static.igem.org/peertube/streaming-playlists/hls/1f714574-d4cd-4471-b2ab-38bde8c81638/fbb8bbb4-1b5c-473d-a250-4066b110e1ba-master.m3u8https://video.igem.org/videos/embed/4TceyrCrpKvjp2VU5EWVKW890232024-09-23T13:42:32.447ZYES2024 TeamsNOhttps://video.igem.org/w/ugs8LE6TgUJwQV5ZU5Yts4https://video.igem.org/lazy-static/thumbnails/a4a034af-e1d8-4335-84f9-13777975dd11.jpgCJUH-JLU-China: Unity Pulae--Cardiac Health Exercises (2024) [English]CJUH-JLU-China Team co-made the Cardiac Health Exercises videos.https://static.igem.org/peertube/streaming-playlists/hls/e4e82508-4838-4e73-9d64-58a51063c573/f5062eb8-f1b9-4e55-9c07-25ec58c0c889-master.m3u8https://video.igem.org/videos/embed/ugs8LE6TgUJwQV5ZU5Yts41270242024-09-23T16:29:26.918ZYES2024 TeamsNOhttps://video.igem.org/w/8LnL5Yi8FGmEHHQEuec8xUhttps://video.igem.org/lazy-static/thumbnails/baf58021-491e-48a4-b5f3-2c8288e84d4c.jpgNYCU-Formosa: protein 2BOU-2 docked with CD97 protein (2024)This year, our team (NYCU-Formosa) used generative AI to make a short peptide that can bind with the antigen to do detection. This is one of our docking results.https://static.igem.org/peertube/streaming-playlists/hls/3ee21b4c-8f2c-4489-aff3-0bfb00265abe/cdda6a88-2958-4bd8-86d6-99dd21729cdd-master.m3u8https://video.igem.org/videos/embed/8LnL5Yi8FGmEHHQEuec8xU40542024-09-24T10:34:53.215ZYES2024 TeamsNOhttps://video.igem.org/w/a9mvmfixXESdEvo6BYfRmQhttps://video.igem.org/lazy-static/thumbnails/ee88fdad-b3a0-44a4-89c8-559fb2eac083.jpgNYCU-Formosa: protein 2BOU-3 docked with CD97 protein (2024)This year, our team (NYCU-Formosa) used generative AI to make a short peptide that can bind with the antigen to do detection. This is one of our docking results.https://static.igem.org/peertube/streaming-playlists/hls/4a0cd5db-a703-4aa9-8ea9-45287acfa66c/4541ea7a-e0f7-4158-8da7-c30c274b55e3-master.m3u8https://video.igem.org/videos/embed/a9mvmfixXESdEvo6BYfRmQ40562024-09-24T10:47:12.207ZYES2024 TeamsNOhttps://video.igem.org/w/4RFJVG7Jm6WBKyJRkaJXLThttps://video.igem.org/lazy-static/thumbnails/1028a027-b27c-4371-9184-c337d450d4c4.jpgCambridge: MovingMagnets (2024)Demonstrating how our magnets will move around our plate of cells for precise local activation. Wiki: https://2024.igem.wiki/cambridgehttps://static.igem.org/peertube/streaming-playlists/hls/1f3b59f6-6437-4baf-92e3-81a665fe0d27/1a921403-a011-4965-afe1-158c002aef43-master.m3u8https://video.igem.org/videos/embed/4RFJVG7Jm6WBKyJRkaJXLT80372024-09-24T10:35:57.062ZYES2024 TeamsNOhttps://video.igem.org/w/3DTzXaVJSV17YbnvdnQJJehttps://video.igem.org/lazy-static/thumbnails/6f9337e8-9d2e-4197-aebd-54c931a762ea.jpgCambridge: Heat Diffusion (2024)Modelling the spatial distribution of temperature after heating MNPs with magnetic field and heat diffusing across the surface.https://static.igem.org/peertube/streaming-playlists/hls/157c9661-3df9-4418-b8c0-9b34bc928289/fc56731f-dc78-4327-9ef5-7854a9b6d44e-master.m3u8https://video.igem.org/videos/embed/3DTzXaVJSV17YbnvdnQJJe40322024-09-24T10:47:19.083ZYES2024 TeamsNOhttps://video.igem.org/w/ePgmxzRDugQV4A9c2guLRshttps://video.igem.org/lazy-static/thumbnails/e4b1aa9c-4ab5-46ef-b5f4-54488016dcd3.jpgIOANNINA: KAHOOT - EFFIEE (SHIME) (2024)A Kahoot demonstration for our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/6fe038de-4a15-4061-9a15-ef628dbb7014/d1f547ed-8dd4-45a5-903b-40b7a9436a42-master.m3u8https://video.igem.org/videos/embed/ePgmxzRDugQV4A9c2guLRs23002024-09-24T10:57:51.264ZYES2024 TeamsNOhttps://video.igem.org/w/nKu2osCB1Pb6HFrb6Cxz6Jhttps://video.igem.org/lazy-static/thumbnails/8398f40d-a35a-4413-82ed-cb8ae92ce2bc.jpgIOANNINA: Kahoot - Learn , Create, Involve (First Part ) (2024)A Kahoot demonstration for our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/b0222a11-0d0f-4466-aa22-0924348f0a28/08b240b5-dc70-4641-8f3f-7fd2b615a90d-master.m3u8https://video.igem.org/videos/embed/nKu2osCB1Pb6HFrb6Cxz6J23012024-09-24T10:59:47.425ZYES2024 TeamsNOhttps://video.igem.org/w/bfWpWsHbmAcN4Wrct5oDPphttps://video.igem.org/lazy-static/thumbnails/95409cee-e3e4-4684-a406-01cddf80fbf0.jpgIOANNINA: Kahoot - Learn , Create, Involve (Second Part ) (2024)A Kahoot demonstration for our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/53115519-ab89-42b1-9655-fe0396564bc1/9e08d14d-529c-40ff-9d73-64f8fbc6b356-master.m3u8https://video.igem.org/videos/embed/bfWpWsHbmAcN4Wrct5oDPp19002024-09-24T11:00:13.817ZYES2024 TeamsNOhttps://video.igem.org/w/o5Jj9h9HXNUU9uzUdT18zvhttps://video.igem.org/lazy-static/thumbnails/7b972e2b-b3e3-4a67-b71f-25af11c1f289.jpgIOANNINA: Kahoot - Online Escape Room (2024)A Kahoot demonstration for our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/b2d21a0f-17b0-4ae2-aaa8-8f85fef87cc3/8ff85059-f001-42f3-afad-b85a910bca7c-master.m3u8https://video.igem.org/videos/embed/o5Jj9h9HXNUU9uzUdT18zv38002024-09-24T11:00:51.516ZYES2024 TeamsNOhttps://video.igem.org/w/d5PaX44ZuAQuUTr6YYf43chttps://video.igem.org/lazy-static/thumbnails/4272dadd-5e59-44e6-9d5d-59d72c18cb2b.jpgIOANNINA: Kahoot - Visit At Schools (2024)A Kahoot demonstration for our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/61d9b5a1-536c-40d0-a4b3-5db2dd297d5b/61ea48c4-b8a5-4e2a-ac07-1bef9981c288-master.m3u8https://video.igem.org/videos/embed/d5PaX44ZuAQuUTr6YYf43c32022024-09-24T11:01:22.828ZYES2024 TeamsNOhttps://video.igem.org/w/rFT3GwRm1aeaJLAsmv9EaVhttps://video.igem.org/lazy-static/thumbnails/1c40b935-23c8-44ae-b7bc-ad42d7de05bd.jpgGuangxi-U-China: Autoclave (2024) [English]Guangxi-U-China: Autoclave (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/d005ee9c-4d89-473d-9ac0-57ca3536a5a7/149026ed-b9ba-41a0-a897-1b310fe3d772-master.m3u8https://video.igem.org/videos/embed/rFT3GwRm1aeaJLAsmv9EaV113022024-09-24T10:41:43.766ZYES2024 TeamsNOhttps://video.igem.org/w/gUnNjfYzFwPWmCp1sDJbEahttps://video.igem.org/lazy-static/thumbnails/fd7b60c0-1857-40d4-82c9-47d3ebc93017.jpgGuangxi-U-China: Centrifuge (2024) [English]Guangxi-U-China: Centrifuge (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/80c93094-3b9e-4c62-8beb-83994691f9ad/2f341d9e-b7a8-4e0d-8627-39b4f8902070-master.m3u8https://video.igem.org/videos/embed/gUnNjfYzFwPWmCp1sDJbEa30022024-09-24T10:48:41.557ZYES2024 TeamsNOhttps://video.igem.org/w/q1ESroeBvB5K6VPvYsSxDmhttps://video.igem.org/lazy-static/thumbnails/5dec0eec-0049-465d-a55e-b648853ab4f5.jpgGuangxi-U-China: Microwave Oven (2024) [English]Guangxi-U-China: Microwave Oven (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/c2734837-1a9e-4de7-ac77-1233ed31e002/4d0cd64d-2e94-480e-b56b-f1139cf589f3-master.m3u8https://video.igem.org/videos/embed/q1ESroeBvB5K6VPvYsSxDm32022024-09-24T10:50:06.785ZYES2024 TeamsNOhttps://video.igem.org/w/778uoNM5npAAyBpCUm69Lbhttps://video.igem.org/lazy-static/thumbnails/1bebfe0f-20ea-47ed-bb74-322a1dd3ad51.jpgGuangxi-U-China: Oven (2024) [English]Guangxi-U-China: Oven (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/3171e901-05a2-4b55-b4fe-6b4b48fadd2a/069fff4a-73fe-4c2a-b28b-d9abe31a332a-master.m3u8https://video.igem.org/videos/embed/778uoNM5npAAyBpCUm69Lb52022024-09-24T10:52:48.853ZYES2024 TeamsNOhttps://video.igem.org/w/xhfHd9AxbgCdXDasxxva6dhttps://video.igem.org/lazy-static/thumbnails/f9558dda-e2a0-419a-84d2-0d965cc4b24f.jpgGuangxi-U-China: Ultra Clean Bench (2024) [English]Guangxi-U-China: Ultra Clean Bench (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/fd5043b3-239e-4bae-b390-30e7cae2dd4a/51305e5b-e5e4-4417-ad0c-bea4b4080c94-master.m3u8https://video.igem.org/videos/embed/xhfHd9AxbgCdXDasxxva6d61022024-09-24T10:55:57.384ZYES2024 TeamsNOhttps://video.igem.org/w/eNoupMGQnW8o7ypSg7MiRAhttps://video.igem.org/lazy-static/thumbnails/6523e297-f683-424e-98a5-ab2e89e30af5.jpgIOANNINA: Activity book flipping pages (2024)Activity book showcase video for our wiki.https://static.igem.org/peertube/streaming-playlists/hls/6fc0e037-b4e9-46c8-8d67-27fc221d8c68/5297cd71-2193-4de3-89e6-49dec2046af9-master.m3u8https://video.igem.org/videos/embed/eNoupMGQnW8o7ypSg7MiRA41082024-09-24T11:02:04.478ZYES2024 TeamsNOhttps://video.igem.org/w/xiGD1DfCeVVPBSCsELvgFvhttps://video.igem.org/lazy-static/thumbnails/967bf6a4-823c-414b-a765-586abcefbd2a.jpgIOANNINA: Story book flipping pages (2024)Story book showcase video for our wiki.https://static.igem.org/peertube/streaming-playlists/hls/fd83fc97-33a7-4cbe-9e0c-c3a32acda997/c03ad0a2-78cf-4242-b00d-a6c86553f3c8-master.m3u8https://video.igem.org/videos/embed/xiGD1DfCeVVPBSCsELvgFv360122024-09-24T11:02:42.704ZYES2024 TeamsNOhttps://video.igem.org/w/wWLGsDFjrkaDQ1b5TS9Ntghttps://video.igem.org/lazy-static/thumbnails/12d9596b-6917-4061-a1dc-0febe2c65a71.jpgIOANNINA: World Blood Donor Day (2024) [Greek]Collaborative video with iGEM Thessaloniki, iGEM Patra’s MED, iGEM Thessaly and iGEM Patras for the World Blood Donor Day 14th of June 2024.https://static.igem.org/peertube/streaming-playlists/hls/fa97de86-88aa-4c58-8db2-b866c14ebde5/82fabb06-caba-4ca9-89e6-023a12021760-master.m3u8https://video.igem.org/videos/embed/wWLGsDFjrkaDQ1b5TS9Ntg1070172024-09-26T10:36:02.680ZYES2024 TeamsNOhttps://video.igem.org/w/q46SiA5RkPZxCaj189wG9qhttps://video.igem.org/lazy-static/thumbnails/28835ce5-985b-4f7a-8a48-f30933e14898.jpgIOANNINA: TEDx Mavili Square Presentation (2024) [Greek]A presentation for TEDx Mavili Square 2024 done be team member Ifigenia Tychirou Anyfanti.https://static.igem.org/peertube/streaming-playlists/hls/c2ca2ccc-ce4d-4ed9-a1ce-4e54f9d3e218/729d8e9f-e715-4789-9f16-59de7443aad5-master.m3u8https://video.igem.org/videos/embed/q46SiA5RkPZxCaj189wG9q5430112024-09-26T10:53:52.738ZYES2024 TeamsNOhttps://video.igem.org/w/fNr9XE8wMDL7P1VY4rMWUEhttps://video.igem.org/lazy-static/thumbnails/ba3e7683-0e90-48d7-922d-13ad9447a101.jpgAachen: AlphaFold Decoded: Series Introduction (2024) [English]Welcome to the journey of “AlphaFold Decoded”! In this introduction, we’ll dive into what makes this series truly special. It’s more than just a deep dive into tensors, machine learning, and AlphaFold’s cutting-edge techniques - it’s an invitation to explore the incredible potential of computational biology together. Whether you’re here to expand your skills or simply curious about the magic behind AlphaFold, this series is crafted for those ready to challenge themselves. Each video covers the theory in detail, and you’ll use this knowledge to do the full implementation yourself. Check out the link for setup instructions, and join us as we unravel the fascinating world of protein folding, one step at a time! https://www.alphafold-decoded.com/lessons/setuphttps://static.igem.org/peertube/streaming-playlists/hls/77dba81a-a3ea-4d57-b883-9afc30e18a7e/ab20a740-8dd8-418e-9567-6f18f97b26ee-master.m3u8https://video.igem.org/videos/embed/fNr9XE8wMDL7P1VY4rMWUE1500412024-09-24T12:57:28.579ZYES2024 TeamsNOhttps://video.igem.org/w/4AV2Qm9Gvb2s3MQbAJowkkhttps://video.igem.org/lazy-static/thumbnails/9acec28c-5227-43ff-8381-5319ca743be7.jpgSDU-Denmark: Interview A - clip 2 (2024) [Danish]Clip from interview with endometriosis patients. https://static.igem.org/peertube/streaming-playlists/hls/1d2b62d4-5d2b-4c03-853d-e0921062d969/783cb4d2-a874-4504-83bd-106c6e699af7-master.m3u8https://video.igem.org/videos/embed/4AV2Qm9Gvb2s3MQbAJowkk38022024-09-24T13:33:18.523ZYES2024 TeamsNOhttps://video.igem.org/w/hqP7ouu9HquD7UXJQySBjrhttps://video.igem.org/lazy-static/thumbnails/892c507e-abf4-4faa-8277-ccfe85d45b94.jpgSDU-Denmark: Interview A - clip 3 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/85091a08-747f-4875-bbb2-6113de0007e9/8b44e5a3-6124-4b3d-964e-de2bde086df8-master.m3u8https://video.igem.org/videos/embed/hqP7ouu9HquD7UXJQySBjr46022024-09-26T07:27:24.140ZYES2024 TeamsNOhttps://video.igem.org/w/rZ2egHjA137shNxNVT6Faehttps://video.igem.org/lazy-static/thumbnails/c2a54d16-0458-4e5b-9eb0-567b9f81d263.jpgSDU-Denmark: Interview A - clip 4 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/d26a9e61-27e1-4f0f-b865-a9bd83fdc4ab/7ab9ddd7-5b9e-4c49-b046-4826cdf962e7-master.m3u8https://video.igem.org/videos/embed/rZ2egHjA137shNxNVT6Fae43022024-09-26T07:26:28.067ZYES2024 TeamsNOhttps://video.igem.org/w/tj3SV3HdewzoLGvM8UiSg8https://video.igem.org/lazy-static/thumbnails/986e35cc-1715-4354-964e-1b9170a4a968.jpgSDU-Denmark: Interview A - clip 5 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/dd2be7bb-dd48-42b4-8967-c939c9bfb97d/53bb5a4d-a812-4d72-852e-c9a47ae4cb8b-master.m3u8https://video.igem.org/videos/embed/tj3SV3HdewzoLGvM8UiSg814032024-09-26T05:05:44.946ZYES2024 TeamsNOhttps://video.igem.org/w/1tPAiXwjiDPDMsPKtaQPqahttps://video.igem.org/lazy-static/thumbnails/7e053af4-703e-47e6-ba08-c604f89830f5.jpgSDU-Denmark: Interview A - clip 6 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/03e2693f-4524-4c52-bd9b-ecb607981645/f5e56e18-ba4c-4711-a5b1-44521c88ab56-master.m3u8https://video.igem.org/videos/embed/1tPAiXwjiDPDMsPKtaQPqa48022024-09-26T07:25:32.695ZYES2024 TeamsNOhttps://video.igem.org/w/brDwdXFzHxVsknkddrDoaWhttps://video.igem.org/lazy-static/thumbnails/fa27b34b-e78c-41e6-bbd6-f2767bd6b587.jpgSDU-Denmark: Interview M - clip 1 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/54901aa2-bbc4-49e1-be0e-55646dd3aab0/1a34f8f0-7287-49d1-bf72-e22085b7ca4c-master.m3u8https://video.igem.org/videos/embed/brDwdXFzHxVsknkddrDoaW210112024-09-26T10:18:30.375ZYES2024 TeamsNOhttps://video.igem.org/w/g1bZRLhQT8PDcrLjtPeCkehttps://video.igem.org/lazy-static/thumbnails/59c51740-d43b-4bc5-9271-afe1043a955f.jpgSDU-Denmark: Interview M - clip 2 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/797fdb7d-6021-46f9-b3ce-9bffb68b50c3/45d6c899-9882-4222-aca4-964e01a7e072-master.m3u8https://video.igem.org/videos/embed/g1bZRLhQT8PDcrLjtPeCke2022024-09-26T10:18:02.837ZYES2024 TeamsNOhttps://video.igem.org/w/ohZBUS5oANoT9pbcYKJTiWhttps://video.igem.org/lazy-static/thumbnails/2f786490-f882-45d6-81bc-f49dcc608332.jpgSDU-Denmark: Interview M - clip 3 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/b48875bc-b0db-416d-84da-017cd4c3ca3c/182a9e44-0d3a-418a-ac42-178730c46a03-master.m3u8https://video.igem.org/videos/embed/ohZBUS5oANoT9pbcYKJTiW9022024-09-26T10:17:55.526ZYES2024 TeamsNOhttps://video.igem.org/w/i2cN49Y1r5vv5GZFyvcw5Ahttps://video.igem.org/lazy-static/thumbnails/5abf5cb6-da76-4fcf-ad32-2f6a2750a59b.jpgSDU-Denmark: Interview M - clip 4 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/89d65e8c-2544-4104-b5cf-23b3c8c5700a/4cb6d146-7336-452c-81f5-5e800361975d-master.m3u8https://video.igem.org/videos/embed/i2cN49Y1r5vv5GZFyvcw5A21022024-09-26T10:14:55.035ZYES2024 TeamsNOhttps://video.igem.org/w/2WXE3kUAD1YcgJyUoSuR6chttps://video.igem.org/lazy-static/thumbnails/1a57056e-d67b-45ea-8ee0-e8296f496793.jpgSDU-Denmark: Interview M - clip 5 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/0fc599f4-8ec6-4677-ae65-4d35b7335b51/49d69a9d-98ba-42de-a9e6-54a44400d537-master.m3u8https://video.igem.org/videos/embed/2WXE3kUAD1YcgJyUoSuR6c8022024-09-26T10:14:13.581ZYES2024 TeamsNOhttps://video.igem.org/w/i4oEy8cCdXiiZfbJvdJnJThttps://video.igem.org/lazy-static/thumbnails/fd309eeb-ea09-433c-847e-5cce59a03138.jpgSDU-Denmark: Interview T - clip 1 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/8a248e60-8fa8-442e-90b9-964aa5873b9b/7e04abd6-cbcb-4ac2-b573-77c536fa262c-master.m3u8https://video.igem.org/videos/embed/i4oEy8cCdXiiZfbJvdJnJT66022024-09-26T10:17:41.440ZYES2024 TeamsNOhttps://video.igem.org/w/47TDxzcCPdzYsRxLHBmxJrhttps://video.igem.org/lazy-static/thumbnails/294207f8-75a5-4e13-a8b6-d38fb242186d.jpgSDU-Denmark: Interview T - clip 2 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/1941b517-7c37-42bf-80f1-b66c0fcd8169/bd9586be-be96-4321-a519-7f038dc941e3-master.m3u8https://video.igem.org/videos/embed/47TDxzcCPdzYsRxLHBmxJr26012024-09-26T10:19:15.538ZYES2024 TeamsNOhttps://video.igem.org/w/byY2bEAkE9FnUZRHEmQUrnhttps://video.igem.org/lazy-static/thumbnails/8f811dff-acdc-4302-bdac-0714b9e74edb.jpgSDU-Denmark: Interview T - clip 3 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/5595b607-110a-4bcf-ab75-42669a68034f/8d89cb9a-b42b-47e6-914d-1b6083f099db-master.m3u8https://video.igem.org/videos/embed/byY2bEAkE9FnUZRHEmQUrn35012024-09-26T10:19:55.592ZYES2024 TeamsNOhttps://video.igem.org/w/cPPri3ECuZR1tSzw1yhMZAhttps://video.igem.org/lazy-static/thumbnails/de28c9ca-c8e7-4edb-bfb1-cf2107cf184c.jpgSDU-Denmark: Interview T - clip 4 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/5fc1b74a-df33-439d-8bb1-712b82d51ee0/cbd9ecae-bf19-48e3-89e6-edd28c1e60ab-master.m3u8https://video.igem.org/videos/embed/cPPri3ECuZR1tSzw1yhMZA27012024-09-26T10:22:21.634ZYES2024 TeamsNOhttps://video.igem.org/w/ch37h9hPZQzsnpwgpPmSq3https://video.igem.org/lazy-static/thumbnails/dfb2bd41-aa34-4f4f-bd80-8e4e98fa3bf0.jpgAachen: AlphaFold Decoded (Lesson 1): Introduction to Tensors (2024) [English]This introductory video is the perfect starting point for understanding the innovative protein structure modeling software, AlphaFold. Mastering tensors will be essential as you progress. For more details and to access the corresponding Jupyter notebook, visit our website and iGEM wiki: Setup Instructions: https://www.alphafold-decoded.com/lessons/setup Download Assignment: https://www.alphafold-decoded.com/lessons/tensor-introduction Wiki: https://2024.igem.wiki/aachen/education 0:00 Intro 0:47 First Concepts 4:00 Tensor Creation 5:43 Tensor Shapes 8:00 Indexing and Slicing 11:29 Axis-wise Operations 15:26 Broadcasting 18:29 torch.einsum 22:13 Outrohttps://static.igem.org/peertube/streaming-playlists/hls/5b51b98e-ac2b-45c5-81b3-5bdcf2da9aaa/10ff2822-ce4e-43df-956b-c21b5f11a609-master.m3u8https://video.igem.org/videos/embed/ch37h9hPZQzsnpwgpPmSq314010662024-09-25T19:07:00.179ZYES2024 TeamsNOhttps://video.igem.org/w/duBSNS2WP43T8KM45Fg359https://video.igem.org/lazy-static/thumbnails/79d84ca8-a573-4398-bb72-02fb197e41b7.jpgSDU-Denmark: Interview T - clip 5 (2024) [Danish]Clip from interview with endometriosis patients.https://static.igem.org/peertube/streaming-playlists/hls/652c994e-3eca-477e-bfaa-1e19600c4fc0/5596ffff-aa9b-4413-a878-fb4b29ebcafe-master.m3u8https://video.igem.org/videos/embed/duBSNS2WP43T8KM45Fg35949032024-09-26T10:23:16.562ZYES2024 TeamsNOhttps://video.igem.org/w/9ZaFZ1HLa67z189dBNRLa2https://video.igem.org/lazy-static/thumbnails/be7cbbf6-9184-4d02-89a3-026e62823551.jpgSDU-Denmark: Interview w. Martin Rudnicki (2024) [Danish]Interview with Martin Rudnicki, Professor and Doctor in Gynecology and Obstetrics at Odense University Hospital, Director of Minimal Invasive Surgery.https://static.igem.org/peertube/streaming-playlists/hls/48c479b7-2aa9-4792-891e-8409d0219da3/805b4824-2112-496a-bacf-7c1022b418de-master.m3u8https://video.igem.org/videos/embed/9ZaFZ1HLa67z189dBNRLa26000142024-09-26T10:30:51.353ZYES2024 TeamsNOhttps://video.igem.org/w/rw3PLYokvyaG9dxeqKjZw3https://video.igem.org/lazy-static/thumbnails/a4b89796-a965-4456-9aba-2447687a6120.jpgAachen: AlphaFold Decoded (Lesson 2): Introduction to Machine Learning (2024) [English]This video is an introduction to Machine Learning, going through the example of a feed-forward neural network for handwritten digit recognition. You can explore the topic hands-on in the accompanying Jupyter Notebook, where you'll do the full implementation yourself with automatic checks: Download Assignment: https://www.alphafold-decoded.com/lessons/machine-learning Setup Instructions: https://www.alphafold-decoded.com/lessons/setup Check out our wiki for more: https://2024.igem.wiki/aachen/education The video is part of a series on implementing AlphaFold 2 from scratch in PyTorch. Even though AlphaFold 3 was released, I think this is still highly relevant. For one, you can't really do an implementation of AlphaFold 3 (code's not released and we don't have pretrained weights) and second, AlphaFold 3 reuses a lot of the structures from AlphaFold 2 (except for the Structure Module), so even if you're more interested in AF 3 this is great preparation. On AlphaFold 3, there's a really cool video from Looking Glass Universe, that takes an in-depth look at its inner workings: AlphaFold 3 (Looking Glass Universe): https://youtu.be/Or3iq4_9-wA?si=OhnWHehvkv3ygTZG Alternative Tutorials on Machine Learning: 3Blue1Brown: https://youtu.be/aircAruvnKk?si=9dzBF2WMtbj17NvX Sebastian Lague: https://youtu.be/hfMk-kjRv4c?si=KjoCFQcveSwcOK09 Chapters: 00:00 Intro 01:20 Recognizing Patterns 03:34 Hierachical Features 07:00 Non-Linearities 09:53 Magic of ML 11:35 Gradient Descent 14:21 Derivatives 19:46 Example Code 20:52 Overview 21:32 Outrohttps://static.igem.org/peertube/streaming-playlists/hls/cea6850f-f940-4b45-8011-124b21477e12/39ab3e87-57f3-4d90-8723-6f478b6180c5-master.m3u8https://video.igem.org/videos/embed/rw3PLYokvyaG9dxeqKjZw313610212024-09-26T03:21:23.525ZYES2024 TeamsNOhttps://video.igem.org/w/4fDi3G2ENxag6JssLsUWRwhttps://video.igem.org/lazy-static/thumbnails/9d3a810b-fba4-44d6-ab1e-f7d8f02937b5.jpgAachen: AlphaFold Decoded (Lesson 9): Full Model (2024) [English]Check out our wiki for more: https://2024.igem.wiki/aachen/educationhttps://static.igem.org/peertube/streaming-playlists/hls/1a56cfdb-9641-43f6-b4c6-02df443f1f90/51750f3b-76b8-4738-a3f7-7b29fc654e7c-master.m3u8https://video.igem.org/videos/embed/4fDi3G2ENxag6JssLsUWRw3460132024-09-26T04:07:04.986ZYES2024 TeamsNOhttps://video.igem.org/w/qGShXghJ7mAx339FTAGP82https://video.igem.org/lazy-static/thumbnails/76c63a5a-1f16-4920-a673-27bc1785f0ca.jpgSUSTechOCEAN: hardware1 (2024) [Chinese]SUSTechOCEAN: hardware1 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/c8101286-7ddd-41af-91b3-1b3748063633/4c323497-824d-4f31-bfac-c5a40275a47c-master.m3u8https://video.igem.org/videos/embed/qGShXghJ7mAx339FTAGP8260192024-09-26T10:20:08.259ZYES2024 TeamsNOhttps://video.igem.org/w/quQ2vWsyRwFhbyLQqyqKEEhttps://video.igem.org/lazy-static/thumbnails/b8d6b71a-09de-4ed4-b728-ab207053cfc6.jpgSUSTechOCEAN: hardware2 (2024) [Chinese]SUSTechOCEAN: hardware2 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/c661c024-c16c-428a-b60e-5e1cc9af908e/befe63f9-8953-45c1-a3c3-804aa5060ac9-master.m3u8https://video.igem.org/videos/embed/quQ2vWsyRwFhbyLQqyqKEE60212024-09-26T10:20:24.256ZYES2024 TeamsNOhttps://video.igem.org/w/7Mz96BnbiN2UwfGGdVUuoMhttps://video.igem.org/lazy-static/thumbnails/d80ad5b8-5dbd-4687-8891-2d9954599eb4.jpgSUSTechOCEAN: hardware3 (2024) [Chinese]SUSTechOCEAN: hardware3 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/36f3b980-4074-475f-be1e-8e38f28f4d09/b729511d-076e-4919-b32a-a469a06be9a4-master.m3u8https://video.igem.org/videos/embed/7Mz96BnbiN2UwfGGdVUuoM70182024-09-26T10:21:04.155ZYES2024 TeamsNOhttps://video.igem.org/w/uF5QSw7HezHiSUjpFyqXVQhttps://video.igem.org/lazy-static/thumbnails/661803be-c1e5-4363-acee-e9654cf4f29d.jpgSUSTechOCEAN: hardware4 (2024) [Chinese]SUSTechOCEAN: hardware4 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/e834dfb5-f742-4a30-931a-fb800fddd0ce/e4269c0a-0abd-4706-b0da-9135e9c435f8-master.m3u8https://video.igem.org/videos/embed/uF5QSw7HezHiSUjpFyqXVQ100142024-09-26T10:21:46.734ZYES2024 TeamsNOhttps://video.igem.org/w/9Se4bSA299vGoGfLPV8heRhttps://video.igem.org/lazy-static/thumbnails/d625744e-46e2-4c5e-a56b-3cd709c04bc8.jpgAachen: AlphaFold Decoded (Lesson 3): Attention (2024) [English]For more information see our wiki: https://2024.igem.wiki/aachen/education For the third video in this series, we take a look at attention. It's the core mechanism that drives most of what's shaping machine learning at the moment. This video is quite short, but pretty much complete regarding what you should know about attention. In the Jupyter Notebook for this video, you'll implement the MultiHeadAttention module that we'll use in AlphaFold. Aside of that, the notebook walks you through implementing a encoder-only transformer for the classification of movie reviews. Download Assignment: https://www.alphafold-decoded.com/lessons/attention Setup Instructions: https://www.alphafold-decoded.com/lessons/setup In the video, I mention the course by Justin Johnson from the University of Michigan as a good starting point for Computer Vision. You can find the video series under the following link. https://youtube.com/playlist?list=PL5-TkQAfAZFbzxjBHtzdVCWE0Zbhomg7r&si=NNkajo1YDTMh4YyA The assignments for the course are also freely available on the website. Timestamps: 0:00 Intro 1:14 Sequential Input 4:05 Attention 6:44 Dynamic Queries 7:46 Interpretability 10:29 Self-Attention 11:53 Multi-Head Attention 13:14 Memory Footprint 14:47 Causality 16:46 Permutation Invariance 18:39 Transformer 22:48 Outrohttps://static.igem.org/peertube/streaming-playlists/hls/47cc57da-cdd3-4228-b235-a376fc43cb2b/4370b234-2667-4622-978d-3412e4196a39-master.m3u8https://video.igem.org/videos/embed/9Se4bSA299vGoGfLPV8heR14310202024-09-25T14:32:21.809ZYES2024 TeamsNOhttps://video.igem.org/w/mmS5HYBawQ2JeUSy19FDA6https://video.igem.org/lazy-static/thumbnails/9010fd62-64c4-42b8-8b72-7b006293ed8a.jpgEPFL: Luminescence (2024)Demo video of the bioluminescence of bacteria : original and thresholded images.https://static.igem.org/peertube/streaming-playlists/hls/a4e0832b-b9d7-4439-bd72-4bea3b69fd85/da17ab05-60ad-441a-80c5-71b95f703289-master.m3u8https://video.igem.org/videos/embed/mmS5HYBawQ2JeUSy19FDA6480372024-09-26T05:27:21.194ZYES2024 TeamsNOhttps://video.igem.org/w/pvVGJjnDcetTthbqtEPRDqhttps://video.igem.org/lazy-static/thumbnails/53907c81-fa4f-46ea-9a11-d89760ee1943.jpgAachen: AlphaFold Decoded (Lesson 5): Evoformer (2024) [English]Check out our wiki for more: https://2024.igem.wiki/aachen/education In the fifth video of this series, we dive into the Evoformer, a critical component of AlphaFold’s architecture. You’ll learn how the Evoformer processes and refines protein sequence and structure information through a series of innovative blocks. This deep dive will show you how AlphaFold builds complex relationships between residues to achieve high-precision protein structure predictions. In the Jupyter Notebook, you’ll implement the Evoformer module step-by-step, gaining a hands-on understanding of its role in the AlphaFold pipeline. Download Assignment: https://www.alphafold-decoded.com/lessons/evoformer Setup Instructions: https://www.alphafold-decoded.com/lessons/setup Animal icons by Icons8. Timestamps: 0:00 Intro 1:01 AlphaFold Overview 2:51 Evoformer Overview 5:25 Recap: Attention 7:08 MSA Stack 10:35 Outer Product Mean 12:53 Triangle Mechanism 16:02 Pair Stack 19:50 Evoformer 23:33 Outrohttps://static.igem.org/peertube/streaming-playlists/hls/be6fda8b-45de-403d-9ea8-7bab075a52f6/6ed43b4a-aed5-4703-9e4b-a50623d07536-master.m3u8https://video.igem.org/videos/embed/pvVGJjnDcetTthbqtEPRDq14610232024-09-25T19:44:02.227ZYES2024 TeamsNOhttps://video.igem.org/w/6mK3kSHgqQXsvH85EJZ4hyhttps://video.igem.org/lazy-static/thumbnails/27b910a4-2e8d-472b-b861-f3cd07fbd749.jpgAachen: AlphaFold Decoded (Lesson 4): Feature Extraction (2024) [English]In the fourth video of this series, we take an in-depth look at feature extraction in AlphaFold. You’ll see how to process the foundational data AlphaFold starts with, converting it into tensors for machine learning use. This video covers the entire feature extraction process, essential for building a full, workable implementation of AlphaFold. In the Jupyter Notebook, you’ll follow detailed steps to implement the feature extraction pipeline, preparing your data for accurate protein structure prediction. Download Assignment: https://www.alphafold-decoded.com/lessons/feature-extraction Setup Instructions: https://www.alphafold-decoded.com/lessons/setup Animal icons by Icons8. Timestamps: 0:00 Intro 0:58 AlphaFold's Inputs 2:54 Sequence Alignments 7:55 Initial Processing 10:05 Cluster Center Selection 10:43 Cluster Masking 12:42 Cluster Assignment 13:12 Cluster Averages 13:49 Feature Stacking 16:32 Outrohttps://static.igem.org/peertube/streaming-playlists/hls/2b6317e1-6793-496a-bd9c-0164878195f4/9f548813-5876-4f99-93a9-ddade9aacd26-master.m3u8https://video.igem.org/videos/embed/6mK3kSHgqQXsvH85EJZ4hy10400282024-09-25T20:22:21.625ZYES2024 TeamsNOhttps://video.igem.org/w/kmHUL6A4qYd33ENJd77wFWhttps://video.igem.org/lazy-static/thumbnails/ae4707ec-8571-4d21-b30b-e4ec8b6ee1d9.jpgAachen: AlphaFold Decoded (Lesson 6): Feature Embedding (2024) [English]Check out our wiki for more: https://2024.igem.wiki/aachen/education In the fifth video of this series, we dive into the Evoformer, a critical component of AlphaFold’s architecture. You’ll learn how the Evoformer processes and refines protein sequence and structure information through a series of innovative blocks. This deep dive will show you how AlphaFold builds complex relationships between residues to achieve high-precision protein structure predictions. In the Jupyter Notebook, you’ll implement the Evoformer module step-by-step, gaining a hands-on understanding of its role in the AlphaFold pipeline. Download Assignment: https://www.alphafold-decoded.com/lessons/evoformer Setup Instructions: https://www.alphafold-decoded.com/lessons/setup Animal icons by Icons8. Timestamps: 0:00 Intro 1:01 AlphaFold Overview 2:51 Evoformer Overview 5:25 Recap: Attention 7:08 MSA Stack 10:35 Outer Product Mean 12:53 Triangle Mechanism 16:02 Pair Stack 19:50 Evoformer 23:33 Outrohttps://static.igem.org/peertube/streaming-playlists/hls/9cc25672-8de7-4d13-8bc4-a4f22bf82d94/25b5842b-8efc-4225-9dbc-9fbb8478e994-master.m3u8https://video.igem.org/videos/embed/kmHUL6A4qYd33ENJd77wFW6380132024-09-26T04:23:48.961ZYES2024 TeamsNOhttps://video.igem.org/w/eZgsX8GVmhtBy8FbLoczuDhttps://video.igem.org/lazy-static/thumbnails/dac11eab-a802-4eaf-90cc-7dc9ec13a85a.jpgAachen: AlphaFold Decoded (Lesson 8): Structure Module (2024) [English]Check out our wiki for more: https://2024.igem.wiki/aachen/educationhttps://static.igem.org/peertube/streaming-playlists/hls/7145ba58-31c7-4509-a82c-6f5b72a211b9/c9c86720-cbca-4e23-8e64-74d34f0592ea-master.m3u8https://video.igem.org/videos/embed/eZgsX8GVmhtBy8FbLoczuD624092024-09-26T07:43:36.684ZYES2024 TeamsNOhttps://video.igem.org/w/tqmnmneU3S7xk8tKPU9GWxhttps://video.igem.org/lazy-static/thumbnails/bc87c6ac-1451-4cb6-9b31-ad57ab004832.jpgCNPEM-BRAZIL: NiNTA (2024) [English]Animation of NiNTA purification. More details on https://2024.igem.wiki/cnpem-brazil/https://static.igem.org/peertube/streaming-playlists/hls/de0d2587-ae42-4f32-83f6-d9a9cbf8741b/12fc117f-4db0-46c4-9a76-90b95d65fb8a-master.m3u8https://video.igem.org/videos/embed/tqmnmneU3S7xk8tKPU9GWx11032024-09-24T15:12:51.162ZcnpemprotocolexperimentsYES2024 TeamsNOhttps://video.igem.org/w/p2G6wzvup2yodfBuEnS9u3https://video.igem.org/lazy-static/thumbnails/b169f889-2e2f-4c1e-9c2a-ad4cd198d913.jpgUCopenhagen: Interview with a cow (2024) [English]A UPCH teammember interviews a 'steakholder' of our projecthttps://static.igem.org/peertube/streaming-playlists/hls/ba7ea47e-6f04-4c4e-a6e3-692ebfe57fda/c5178fee-c443-4186-a7b7-7409f9700569-master.m3u8https://video.igem.org/videos/embed/p2G6wzvup2yodfBuEnS9u3130152024-09-24T15:19:56.070ZiGEMUCPHYES2024 TeamsNOhttps://video.igem.org/w/57wNPwK6893ai9akeHDZhJhttps://video.igem.org/lazy-static/thumbnails/5bbe5d54-9e82-449c-b75f-e8e3407fa341.jpgCJUH-JLU-China: “One Net Forward, Endless Heart Joy”--campus tennis teaching activity (2024) [Eng...CJUH-JLU-China Team held “One Net Forward, Endless Heart Joy”--campus tennis teaching activity.https://static.igem.org/peertube/streaming-playlists/hls/214e00bd-8003-44c3-8e48-686439083486/81f7d2b3-eea8-4f92-a329-80bfa4869582-master.m3u8https://video.igem.org/videos/embed/57wNPwK6893ai9akeHDZhJ1170132024-09-25T20:24:50.341ZYES2024 TeamsNOhttps://video.igem.org/w/sRn3PTBcDL1NdFt7fnL28Jhttps://video.igem.org/lazy-static/thumbnails/16d3be17-1f22-4bd4-a467-ba8b953119fc.jpgIIT-Madras: 3.webm (2024)IIT-Madras: 3.webm (2024)https://static.igem.org/peertube/streaming-playlists/hls/d9720589-1e66-4d3e-a441-ffa6c7bce6d4/52647bdd-5ef6-4c76-8996-973749e25157-master.m3u8https://video.igem.org/videos/embed/sRn3PTBcDL1NdFt7fnL28J11012024-09-26T04:24:32.404ZYES2024 TeamsNOhttps://video.igem.org/w/cwhFFjynYPXJLkwUTpmYvahttps://video.igem.org/lazy-static/thumbnails/591e4086-bda8-4fc8-9241-b004968a4958.jpgBolivia: Educational videos on mercury awareness in Quechua (2024) [Quechua]In this video, Celinda from iGEM Bolivia explains how mercury contaminates the soil through industrial emissions, fossil fuel burning, and waste disposal. She also highlights three remediation techniques: enzymatic degradation, microbial bioremediation, and phytoremediation, where plants and microorganisms help clean mercury from the environment.https://static.igem.org/peertube/streaming-playlists/hls/5d4f1ecc-30f8-476e-b9c7-abae618d07eb/fa6f5d76-02b8-48ea-bd0c-54ac147d8719-master.m3u8https://video.igem.org/videos/embed/cwhFFjynYPXJLkwUTpmYva442072024-09-25T15:53:51.588ZYES2024 TeamsNOhttps://video.igem.org/w/ugksbg86nG8uH42BGFExGchttps://video.igem.org/lazy-static/thumbnails/16a5cf64-faf3-4544-a374-813897f55bd8.jpgSynergizing Success: Fireside chat with Lucas Boldrini, Team Experience Manager at iGEMOn September 23rd at 15:00 UTC we hosted our second event of the year a fireside chat with Lucas Boldrini, Team Experience Manager at iGEM, to equip iGEM 2024 teams with the essential knowledge and skills necessary for effective team management, conflict resolution, and project completion. https://static.igem.org/peertube/streaming-playlists/hls/e4e406bd-e88a-44d0-aa08-afd25cad3b17/bf383d21-eba1-4284-a2a1-396f38ff850e-master.m3u8https://video.igem.org/videos/embed/ugksbg86nG8uH42BGFExGc3149082024-09-25T15:41:28.121ZYESiGEM CommunityNOhttps://video.igem.org/w/4vu4yuAx4eqtrSaC6mYvWGhttps://video.igem.org/lazy-static/thumbnails/f991dbb0-9c11-4df8-a288-8f404af99c01.jpgBolivia: Discover how we promote inclusion and scientific education (2024) [English]Through our videos on synthetic biology, biotechnology, and mercury awareness, we are not only opening doors to knowledge—we are building bridges to a future where access to science and technology is truly inclusive. Because, ultimately, real science reaches everyone, everywhere, without barriers of language or culture.https://static.igem.org/peertube/streaming-playlists/hls/1c69475c-4716-4223-b92d-7591c9ae0b18/06b5650b-8633-4bd5-8701-3efb4fe90310-master.m3u8https://video.igem.org/videos/embed/4vu4yuAx4eqtrSaC6mYvWG175062024-09-26T04:29:12.359ZYES2024 TeamsNOhttps://video.igem.org/w/qav4558jKnqLzVKHx7MoRKhttps://video.igem.org/lazy-static/thumbnails/9fa1acf3-f69c-4b26-afa3-88b1d6851033.jpgNMU-China: bacteria diffusion (2024)NMU-China: bacteria diffusion (2024)https://static.igem.org/peertube/streaming-playlists/hls/c3aeed20-7819-49bc-9ed7-26554612a4e5/09ff1171-03ac-4a70-9d85-95a7f2e0129d-master.m3u8https://video.igem.org/videos/embed/qav4558jKnqLzVKHx7MoRK100192024-09-25T15:50:31.608ZYES2024 TeamsNOhttps://video.igem.org/w/n4u166qP1L3nYVACH7pTqvhttps://video.igem.org/lazy-static/thumbnails/dc5bede1-7fa1-452e-aa49-ffec24474dd7.jpgGuangxi-U-China: How to operate the wearable heating module (2024) [English]Guangxi-U-China: How to operate the wearable heating module (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/aa8c6653-c9b0-4c68-92a0-6dd720d31151/9582ae1e-a195-4da6-9dde-c5831dda1062-master.m3u8https://video.igem.org/videos/embed/n4u166qP1L3nYVACH7pTqv60032024-09-26T07:45:24.076ZYES2024 TeamsNOhttps://video.igem.org/w/4TRfJnLUk7an1KVV82rvPwhttps://video.igem.org/lazy-static/thumbnails/02578e7d-1a8b-446b-a845-4d8ec6961122.jpgGuangxi-U-China: How to operate the diagnostic module (2024)Guangxi-U-China: How to operate the diagnostic module (2024)https://static.igem.org/peertube/streaming-playlists/hls/1f88b3bc-3f84-4ee5-a58e-ace6325778f0/e794adf8-8d90-4272-8fb8-795c9ad25fdf-master.m3u8https://video.igem.org/videos/embed/4TRfJnLUk7an1KVV82rvPw30042024-09-26T08:41:14.269ZYES2024 TeamsNOhttps://video.igem.org/w/3jcrTFNfHUZ4Tsu5Js8tcphttps://video.igem.org/lazy-static/thumbnails/9c92584b-6a1d-4a02-8b0c-ae6f64f5822e.jpgUZurich: Vivienne Oggier: farming practices (2024) [German]Watch our fascinating interview with Vivienne Oggier, where she shares her expertise on plant protection and sustainable farming practices. Learn about the challenges farmers face, modern strategies for protecting crops, and how these methods impact the environment and our food supply. If you're interested in agriculture, sustainability, or just want to understand the science behind farming, this interview is packed with valuable insights!https://static.igem.org/peertube/streaming-playlists/hls/12bcb822-56f6-4fbc-a5e1-6b54b15ab759/d9ba4f45-faf9-425d-ab8f-145b1b4c6a92-master.m3u8https://video.igem.org/videos/embed/3jcrTFNfHUZ4Tsu5Js8tcp8790262024-09-25T18:40:46.294ZYES2024 TeamsNOhttps://video.igem.org/w/oHixzyWUYF6aYz5GHiEeVRhttps://video.igem.org/lazy-static/thumbnails/a2a9d3b6-4e25-4680-8a12-6274e369c872.jpgLethbridgeHS: L evothyroxine - Lethbridge High School iGEM TFC 2024 (2024) [English]We participated in the MindFuel Tech Futures Challenge. This is one of our project pitches that we submitted to judges in February 2024. https://2024.igem.wiki/lethbridgehshttps://static.igem.org/peertube/streaming-playlists/hls/b7ed5b74-9ed8-4c74-b5aa-963e292ffea7/0b0d5c1e-7297-4ad4-9d4d-d436c159eb41-master.m3u8https://video.igem.org/videos/embed/oHixzyWUYF6aYz5GHiEeVR387042024-09-25T18:45:11.189ZYES2024 TeamsNOhttps://video.igem.org/w/hx36kaeVvjdYidWFkHEGbdhttps://video.igem.org/lazy-static/thumbnails/88a7113e-bf1e-49f2-b7e5-ccd42334321a.jpgLethbridgeHS: Bo-Find - Lethbridge High School iGEM TFC project pitch (2024) [English]We participated in the MindFuel Tech Futures Challenge. This is one of two projecct pitches submitted to judges. https://2024.igem.wiki/lethbridgehshttps://static.igem.org/peertube/streaming-playlists/hls/85e7908a-4ee2-438d-b448-ac5cf2321510/92e16f2a-b014-4d55-968b-efba23549d83-master.m3u8https://video.igem.org/videos/embed/hx36kaeVvjdYidWFkHEGbd387092024-09-25T18:49:49.430ZYES2024 TeamsNOhttps://video.igem.org/w/iY6oRznkeHjWGH49j1qCqFhttps://video.igem.org/lazy-static/thumbnails/7dfd0a48-0450-4787-9c59-403dedf8e130.jpgBolivia: Educational videos on mercury awareness in Aymara (2024) [Aymara]In this video, Rosa from iGEM Bolivia discusses the sources of mercury and its harmful effects on health. The goal is to raise awareness about mercury exposure and encourage steps to protectour well-being.https://static.igem.org/peertube/streaming-playlists/hls/91805521-50b5-4fdb-9a88-8670f95f7a27/28343594-9620-4a82-8aaf-c597774ca15e-master.m3u8https://video.igem.org/videos/embed/iY6oRznkeHjWGH49j1qCqF227082024-09-26T05:31:33.398ZYES2024 TeamsNOhttps://video.igem.org/w/hvBNFH14G6Sp2GK4FsNLHPhttps://video.igem.org/lazy-static/thumbnails/47c814ee-a7b6-4178-b8be-6d040db2d61e.jpgBolivia: Human Practices Banner (2024) [English]Introduction human practices banner https://static.igem.org/peertube/streaming-playlists/hls/85b4da7b-8cc7-4da5-95e8-5d8e224e5219/50daa15f-ee42-4cae-9b28-49d578f07cc9-master.m3u8https://video.igem.org/videos/embed/hvBNFH14G6Sp2GK4FsNLHP3401352024-09-26T07:47:56.174ZYES2024 TeamsNOhttps://video.igem.org/w/9z5du4rt4JqtnwJCQsVMhqhttps://video.igem.org/lazy-static/thumbnails/a7a2d716-d49c-42a3-b84a-e6bf4b7e12bc.jpgBolivia: Video Scicomm (2024) [English]Bolivia: Video Scicomm (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/4567405d-3790-48c1-8284-90a32b13c4f4/4ba68c47-1f9e-455b-a02b-cc74eed1d19c-master.m3u8https://video.igem.org/videos/embed/9z5du4rt4JqtnwJCQsVMhq1800192024-09-26T07:51:13.829ZYES2024 TeamsNOhttps://video.igem.org/w/5U52Gp9d7bTZieynkfCzDBhttps://video.igem.org/lazy-static/thumbnails/ca393441-a81b-4a7b-a503-a6056c18247c.jpgUZurich: Dr. Mosisa Wakjira - Agrometeorology Expert (2024) [German]Join us for an enlightening interview with Dr. Mosisa Wakjira as he shares his expertise on water availability and rainfall seasonality in agriculture. Discover how changing weather patterns affect crop production, the importance of efficient water management, and the challenges farmers face in adapting to these shifts. If you're interested in the relationship between climate and agriculture, this interview provides essential insights into sustainable farming in an ever-changing environment!https://static.igem.org/peertube/streaming-playlists/hls/27a9b6bb-319f-4f0b-a047-9ec062faefc9/fae266ea-b9c3-4b5b-b454-d64849438d01-master.m3u8https://video.igem.org/videos/embed/5U52Gp9d7bTZieynkfCzDB24970182024-09-25T22:37:48.956ZYES2024 TeamsNOhttps://video.igem.org/w/i79g8LsxUsxRxPk5qJKQeVhttps://video.igem.org/lazy-static/thumbnails/4023032a-5551-4df3-a989-e9654b4627d7.jpgUZurich: Fritz Meier - Farmer and Owner of Gebrüder Meier Gemüsekulturen AG (Farming) (2024) [Ger...Check out our insightful interview with Fritz Meier, a seasoned plant producer, as he discusses his farming practices and current trends in Swiss agriculture. Learn about the techniques he uses to grow crops, the challenges facing farmers today, and the evolving landscape of farming in Switzerland. Whether you're passionate about agriculture or curious about Swiss farming, this interview offers a valuable glimpse into the world of modern plant production. https://static.igem.org/peertube/streaming-playlists/hls/8a86e92b-65cf-4d9c-a99f-4acde86c9bbf/7f5eac5f-ea80-47a0-b8b3-05f96609889c-master.m3u8https://video.igem.org/videos/embed/i79g8LsxUsxRxPk5qJKQeV5930142024-09-25T22:57:43.001ZYES2024 TeamsNOhttps://video.igem.org/w/kX3Z7ptM8usbw6dUpkXoeqhttps://video.igem.org/lazy-static/thumbnails/cfb40cdf-531a-4b00-aa8e-1a7fffc7c161.jpgUZurich: Claudia Vaderna - Schweizer Allianz Gentechfrei (Swiss Alliance against Gene Technology)...Watch our compelling interview with Claudia Vaderna, managing director of the 'Schweizer Allianz Gentechfrei,' an organization advocating for GMO-free agriculture. In this conversation, Claudia shares her views on biotechnology in farming, the concerns surrounding GMOs, and the movement to maintain GMO-free practices in Switzerland. If you're curious about the debate over biotechnology in agriculture and the push for sustainable alternatives, this interview offers important perspectives from a leading voice in the field.https://static.igem.org/peertube/streaming-playlists/hls/a18d6199-d334-4cc2-ba7d-1364a2f6184a/de2f76a1-67ab-4d5d-bc50-a1eebe1dd11d-master.m3u8https://video.igem.org/videos/embed/kX3Z7ptM8usbw6dUpkXoeq1292092024-09-26T05:05:32.129ZYES2024 TeamsNOhttps://video.igem.org/w/gMXBeN9BiLvwfTm7n7zXYFhttps://video.igem.org/lazy-static/thumbnails/5dc0d318-226b-431e-a8c5-9cfc93805a26.jpgUZurich: Dr. Angela Bearth - Consumer Behavior Expert (2024) [German]Join us for an insightful interview with Dr. Angela Bearth, as she dives into the complex world of consumer perceptions surrounding GMOs in food. Discover the key factors influencing public opinion, common misconceptions, and the scientific realities behind genetically modified organisms. Whether you're curious about GMOs or looking to better understand how they are viewed by consumers, this conversation offers valuable perspectives and expert insights. Don't miss it!"https://static.igem.org/peertube/streaming-playlists/hls/7fe3d1a4-b81f-4710-8bc0-1b32960969bb/e1eda547-dd0f-4173-b5f8-5e51803e18ee-master.m3u8https://video.igem.org/videos/embed/gMXBeN9BiLvwfTm7n7zXYF12580192024-09-26T07:21:49.156ZYES2024 TeamsNOhttps://video.igem.org/w/iyHTqLbZuvX97NCDa82ga9https://video.igem.org/lazy-static/thumbnails/d39ec73b-74b7-45d0-9d55-08cc465f84e1.jpgUZurich: Dr. Anna Deplazes Zemp - Bioethics and Environmental Ethics (2024) [German]Don't miss our thought-provoking interview with Dr. Anna Deplazes Zemp, where she delves into the ethics of synthetic biology and environmental ethics. Explore the moral questions surrounding biotechnology, its impact on nature, and the ethical considerations scientists face in this rapidly evolving field. If you're interested in the intersection of science, ethics, and the environment, this interview offers deep insights into the ethical challenges of modern biology.https://static.igem.org/peertube/streaming-playlists/hls/8e3cf8b0-2aef-4b5b-b24e-4d1615baf2a6/0a4d9fb2-a947-483e-9f8e-15776479446a-master.m3u8https://video.igem.org/videos/embed/iyHTqLbZuvX97NCDa82ga914400172024-09-26T08:33:45.635ZYES2024 TeamsNOhttps://video.igem.org/w/4YuP1fpczEz42VaposDGVshttps://video.igem.org/lazy-static/thumbnails/c59ee779-86a5-4910-9f99-8edf2666bb5f.jpgHangzhou-SDG: Filter_test (2024)Hangzhou-SDG: Filter_test (2024)https://static.igem.org/peertube/streaming-playlists/hls/202ed278-81bc-41f9-9619-7992d1b10224/3b369e8f-d943-4dd8-b399-5aa1a4f5b711-master.m3u8https://video.igem.org/videos/embed/4YuP1fpczEz42VaposDGVs730122024-09-26T06:01:20.895ZYES2024 TeamsNOhttps://video.igem.org/w/mfvoydRnpCSLvKkNiFjoGNhttps://video.igem.org/lazy-static/thumbnails/259b1047-a47c-46c2-98fe-9506e323aa4a.jpgHangzhou-SDG: Filter_test02 (2024)Hangzhou-SDG: Filter_test02 (2024)https://static.igem.org/peertube/streaming-playlists/hls/a3fd4c2a-a939-4ead-8bd9-fcecccf17236/ae4e198f-4409-4312-821b-a497e4a723e8-master.m3u8https://video.igem.org/videos/embed/mfvoydRnpCSLvKkNiFjoGN740132024-09-26T06:20:37.062ZYES2024 TeamsNOhttps://video.igem.org/w/6BoqTULo95UzNGpm5AF981https://video.igem.org/lazy-static/thumbnails/45861488-875f-4d0b-aeeb-e46638b150a3.jpgCJUH-JLU-China: Synthetic Journey--“Fly” with You (2024) [English]iGEMer' Day: Synthetic Journey--“Fly” with Youhttps://static.igem.org/peertube/streaming-playlists/hls/2d6e8c39-5e9d-4490-81a6-3386f6c4bfee/e00afc62-6eb9-446f-8ec9-30195f71d788-master.m3u8https://video.igem.org/videos/embed/6BoqTULo95UzNGpm5AF98197042024-09-26T06:43:17.807ZYES2024 TeamsNOhttps://video.igem.org/w/i44hNHcQcmgn2re5Q5jupQhttps://video.igem.org/lazy-static/thumbnails/73904a16-7b5b-45e4-85bf-92aef410a84e.jpgHangzhou-SDG: Make-up_air testing (2024)Hangzhou-SDG: Make-up_air testing (2024)https://static.igem.org/peertube/streaming-playlists/hls/8a189dac-318b-4b2a-8029-95772076aee6/8c4f1c51-73ff-41a3-9847-045fe2fe26cf-master.m3u8https://video.igem.org/videos/embed/i44hNHcQcmgn2re5Q5jupQ25082024-09-26T06:25:20.118ZYES2024 TeamsNOhttps://video.igem.org/w/56ssogkX3eiGCFnrMjoTowhttps://video.igem.org/lazy-static/thumbnails/4224faa8-5c6b-4fc5-b4f3-eb46921a5f57.jpgHangzhou-SDG: relay_test (2024)Hangzhou-SDG: relay_test (2024)https://static.igem.org/peertube/streaming-playlists/hls/212793af-940b-487a-aba2-528b5520bab6/7304b048-c375-4537-9502-8ec8d1203900-master.m3u8https://video.igem.org/videos/embed/56ssogkX3eiGCFnrMjoTow140102024-09-26T06:45:42.412ZYES2024 TeamsNOhttps://video.igem.org/w/1w1QvQDChEATLrTwTi8MQ4https://video.igem.org/lazy-static/thumbnails/53e99353-5b27-434d-aad1-4be07288bb4f.jpgUZurich: Rahel Emmenegger-Manser - Schweizer Getreideproduzentenverband (Swiss Grain Producers As...Join us for an engaging interview with Rahel Emmenegger-Manser, deputy managing director of the 'Schweizerischer Getreideproduzentenverband,' as she discusses the role of this organization in representing grain, oilseed, and protein crop producers. Learn about the challenges faced by farmers, the current state of crop production in Switzerland, and the strategies being employed to support these vital industries. If you're interested in agriculture and food production, this interview provides a valuable look into the work being done to support Swiss farmers.https://static.igem.org/peertube/streaming-playlists/hls/0430d41e-1c87-4558-9b36-59b819fa5e3f/5e8b014b-501c-48f8-a900-15e9eea2d82f-master.m3u8https://video.igem.org/videos/embed/1w1QvQDChEATLrTwTi8MQ412500102024-09-26T10:00:32.386ZYES2024 TeamsNOhttps://video.igem.org/w/qYCr1XLLXsB6sfcVGXW2oZhttps://video.igem.org/lazy-static/thumbnails/e6d08987-e90a-4f2d-87f2-31b25a08b7c5.jpgHangzhou-SDG: result (2024)Hangzhou-SDG: result (2024)https://static.igem.org/peertube/streaming-playlists/hls/ca436e39-16b1-4a05-a6f6-7346219e82f9/d3632f83-fb91-4e03-ad47-6fa7bfb3d4db-master.m3u8https://video.igem.org/videos/embed/qYCr1XLLXsB6sfcVGXW2oZ180102024-09-26T07:24:34.857ZYES2024 TeamsNOhttps://video.igem.org/w/kehgUYeqjsLQmE1mX4BNA9https://video.igem.org/lazy-static/thumbnails/24e3ada2-33a2-4e37-aec5-a3d2bd212d94.jpgHangzhou-SDG: Stirring_test (2024)Hangzhou-SDG: Stirring_test (2024)https://static.igem.org/peertube/streaming-playlists/hls/9bb8553e-7abd-4559-b05e-da35ea9e8f3c/350cdeae-5dac-446d-b77e-5176007a797a-master.m3u8https://video.igem.org/videos/embed/kehgUYeqjsLQmE1mX4BNA9400172024-09-26T08:40:23.901ZYES2024 TeamsNOhttps://video.igem.org/w/7Abe2v1W5ffFMAMbiiNPYChttps://video.igem.org/lazy-static/thumbnails/0804f297-8043-4c13-9ea4-475b60c2c0f8.jpgHangzhou-SDG: UV_Light_test (2024)Hangzhou-SDG: UV_Light_test (2024)https://static.igem.org/peertube/streaming-playlists/hls/355c6bd7-ef34-4443-a2ab-5ca1f873ce50/aedfb1f4-b39b-4e52-9290-33b62785f839-master.m3u8https://video.igem.org/videos/embed/7Abe2v1W5ffFMAMbiiNPYC70102024-09-26T10:00:53.267ZYES2024 TeamsNOhttps://video.igem.org/w/6wxFwybEQpVVuAJSCeopVohttps://video.igem.org/lazy-static/thumbnails/13ba5c01-0569-48ea-9609-0ecc445fd200.jpgHangzhou-SDG: UV_light (2024)Hangzhou-SDG: UV_light (2024)https://static.igem.org/peertube/streaming-playlists/hls/2cc187e3-8ea2-4d27-819a-9b9613706594/7eb0d4bf-b165-415a-aeaa-d843dea4eeb1-master.m3u8https://video.igem.org/videos/embed/6wxFwybEQpVVuAJSCeopVo17072024-09-26T10:05:59.810ZYES2024 TeamsNOhttps://video.igem.org/w/uUekCwpQM6cxViHNkk5VwAhttps://video.igem.org/lazy-static/thumbnails/4a5ef3fa-6680-4cf3-89ac-ab9a512ca382.jpgHangzhou-SDG: Water_Quality (2024)Hangzhou-SDG: Water_Quality (2024)https://static.igem.org/peertube/streaming-playlists/hls/ea0ac754-23fd-45eb-9c1c-2defdcb42012/9c47edd3-734a-4d12-a802-1d24f5118ca6-master.m3u8https://video.igem.org/videos/embed/uUekCwpQM6cxViHNkk5VwA300112024-09-26T10:13:44.371ZYES2024 TeamsNOhttps://video.igem.org/w/oqbjxNtTBmr3VQHSUwRE75https://video.igem.org/lazy-static/thumbnails/96d3a82f-5f18-4c10-8f0e-8f02df7ab04f.jpgIOANNINA: Scrunchie collab with iGEM Thessaloniki submission (2024)A video submission for a collab with iGEM Thessaloniki, for our wiki.https://static.igem.org/peertube/streaming-playlists/hls/b58942c3-e1a2-409f-a14b-dbe785d3cbc0/f2bf320a-ddbb-4faa-bf84-0c374c2af587-master.m3u8https://video.igem.org/videos/embed/oqbjxNtTBmr3VQHSUwRE7511042024-09-26T10:36:07.150ZYES2024 TeamsNOhttps://video.igem.org/w/mYnvAPodMeYd573HUiHA5dhttps://video.igem.org/lazy-static/thumbnails/0eaa8cf1-6e13-4bde-b409-1d811776261e.jpgVilnius-Lithuania: Bright-field microscopy wash of control and CB2 (2024) [English]Video of bright-field microscopy for CB2 system and control fractions with increased washing speed.https://static.igem.org/peertube/streaming-playlists/hls/a9d5ae38-1fb2-40dc-b275-0fb832ffb5f4/5d15e10f-abd5-438b-9e44-d53eb00ab57a-master.m3u8https://video.igem.org/videos/embed/mYnvAPodMeYd573HUiHA5d1150442024-09-26T09:15:01.354ZYES2024 TeamsNOhttps://video.igem.org/w/tmz3gLJeUV67uSDyKbJ9zyhttps://video.igem.org/lazy-static/thumbnails/25079f94-f5af-4085-9e0e-6f670d5e8f8b.jpgHS-Beta: A collection of our Public Engagement (2024) [English]A video was made to document our Public Engagementhttps://static.igem.org/peertube/streaming-playlists/hls/dd85faf7-0e2b-47cc-a31b-bb9f2bf1264a/eec3420e-bf3c-4523-9648-7a8eddeb00eb-master.m3u8https://video.igem.org/videos/embed/tmz3gLJeUV67uSDyKbJ9zy103082024-09-26T09:16:13.163ZYES2024 TeamsNOhttps://video.igem.org/w/eHhUtKjoCuz9wL1zoVsvV3https://video.igem.org/lazy-static/thumbnails/2a663127-6fe7-491f-ae30-6716b99a858b.jpgHS-Beta: A collection of our labs (2024)A video was made to document our lab activitieshttps://static.igem.org/peertube/streaming-playlists/hls/6f0ab710-fc8e-4c2c-b424-3fd4c54b4f78/2cf6f905-1214-460a-b7e5-545f30d8a292-master.m3u8https://video.igem.org/videos/embed/eHhUtKjoCuz9wL1zoVsvV333052024-09-26T09:16:55.024ZYES2024 TeamsNOhttps://video.igem.org/w/ahuP9up7fL8vM6pC4B7m8Uhttps://video.igem.org/lazy-static/thumbnails/c7ce436e-7cac-4204-8a40-e65e006271bc.jpgHS-Beta: Hand Talk (2024) [English]Hand Talk demo video for educationhttps://static.igem.org/peertube/streaming-playlists/hls/4b2fe7a2-5999-4a93-bf62-f7827a7fa51a/8ad30316-0e93-4847-a597-5f59d1df956a-master.m3u8https://video.igem.org/videos/embed/ahuP9up7fL8vM6pC4B7m8U185032024-09-26T09:17:11.589ZYES2024 TeamsNOhttps://video.igem.org/w/mDbAgwKCNLPhcBWZEt2Teihttps://video.igem.org/lazy-static/thumbnails/5b27c67a-b57e-4f2e-bc51-a5a4a869c312.jpgHS-Beta: HS-Beta (2024)A little video for presentationhttps://static.igem.org/peertube/streaming-playlists/hls/a727d1cb-d7ec-4830-8b22-6a7ea1fa2607/0c6bdcd3-5501-4eb8-acc3-63a01e288ed5-master.m3u8https://video.igem.org/videos/embed/mDbAgwKCNLPhcBWZEt2Tei11022024-09-26T09:17:25.604ZYES2024 TeamsNOhttps://video.igem.org/w/6jfRDjgzPvDRrHNoCj92Aphttps://video.igem.org/lazy-static/thumbnails/1be780ef-0afa-4a15-93a5-d94eb5890480.jpgHS-Beta: experimental principle (2024)In the description, a schematic diagram of the experimental principlehttps://static.igem.org/peertube/streaming-playlists/hls/2b0a3c87-b8d7-4abd-a81f-fca7f015574f/a41f3a07-e04b-4995-89db-bc55e99e8cab-master.m3u8https://video.igem.org/videos/embed/6jfRDjgzPvDRrHNoCj92Ap220252024-09-26T09:18:13.928ZYES2024 TeamsNOhttps://video.igem.org/w/4fF3wmosxA5gVsivqhzjFAhttps://video.igem.org/lazy-static/thumbnails/7b582091-6740-467b-a0a8-fff53c196562.jpgHS-Beta: symbiosis (2024) [Chinese]A recorded video of Symbiosis Summit Preparation of Protein Standard Sampleprinciplehttps://static.igem.org/peertube/streaming-playlists/hls/1a57e3e2-81a8-46b8-9406-803e16c58c68/16f8268e-b11f-4279-a4d2-52ded90874da-master.m3u8https://video.igem.org/videos/embed/4fF3wmosxA5gVsivqhzjFA177012024-09-26T10:02:52.416ZYES2024 TeamsNOhttps://video.igem.org/w/dkjButWyJA7qcoE8nnW55zhttps://video.igem.org/lazy-static/thumbnails/c5dfbfb3-b385-4ba4-8fed-ba86aa6f36a5.jpgHS-Beta: sample (2024) [Chinese]A recorded video of Plastic Test in Water Samplehttps://static.igem.org/peertube/streaming-playlists/hls/63e043fb-1518-4744-85c8-fd0e703eb139/28bf2a8e-8efb-4fb0-97dd-c3b2e0e9982b-master.m3u8https://video.igem.org/videos/embed/dkjButWyJA7qcoE8nnW55z151002024-09-26T10:11:24.080ZYES2024 TeamsNOhttps://video.igem.org/w/msKwMceUdefkyug5zcesighttps://video.igem.org/lazy-static/thumbnails/bbe340a7-2f6e-4621-8e7d-d0c49f3cf128.jpgCityU-HongKong: UCCKE's Synthetic Biology Workshop (2024) [English]A synthetic biology workshop that allows students to gain a deeper understanding of how synthetic biology can be leveraged to address real-world challenges, such as ensuring the safety and quality of critical medical treatments. Students will also have the chance to connect with the passionate researchers behind this innovative project and share their own perspectives on the role of science in promoting public health. The International Genetically Engineered Machines Competition, known as iGEM, will also be introduced. It is a worldwide synthetic biology competition that tasks teams with developing projects that solve real-world problems that are functionally and socially responsible. Date/Time: Wednesday, 11 September 2024 Venue: United Christian College Kowloon East (Biology Lab) Objective: 1.Incorporate interactive activities and demonstrations to actively engage the students and showcase the practical applications of synthetic biology. 2.Encourage discussions on the societal implications, ethical considerations, and public values surrounding the development and use of such diagnostic tools. 3.Provide opportunities for the students to ask questions and share their perspectives, fostering a two-way dialogue. 4.Highlight the potential career paths and educational opportunities in the field of synthetic biology and biotechnology. https://2024.igem.wiki/cityu-hongkong/ https://static.igem.org/peertube/streaming-playlists/hls/a5b2f01d-9f0e-4d03-bf50-b9217cbc0569/d5a29140-3bc0-47ca-989a-b568e74e670b-master.m3u8https://video.igem.org/videos/embed/msKwMceUdefkyug5zcesig850392024-09-26T11:18:19.859ZYES2024 TeamsNOhttps://video.igem.org/w/iixRdbunKYr1NN2BABUA7Whttps://video.igem.org/lazy-static/thumbnails/7fa28957-2592-487c-841a-f6d7e5c0f010.jpgVilnius-Lithuania: Viktorija Interview (2024) [Lithuanian]In this video, Viktorija shares her experience of living with diabetes for 25 years. She discusses the impact of modern technology, such as insulin pumps and continuous glucose monitors, on her daily life and how these advancements have simplified diabetes management. Viktorija also talks about the challenges and benefits of these devices and the support she receives from the diabetes community. Interviewee: Viktorija Interviewer: Rokas, Evelina Wiki page link: https://2024.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/8c1ea0ec-d1fb-4c2f-ae48-56d80af3a02a/c4ad63ea-df34-4862-8ca0-a7cd094366b4-master.m3u8https://video.igem.org/videos/embed/iixRdbunKYr1NN2BABUA7W970022024-09-26T12:26:42.654ZYES2024 TeamsNOhttps://video.igem.org/w/oEmCCU9tvTfMP8vjz39BLjhttps://video.igem.org/lazy-static/thumbnails/97dbf3bf-1cde-47fe-b160-79d795ba934b.jpgVilnius-Lithuania: Luknė Interview (2024) [Lithuanian]In this video, Luknė, a Dexcom user, shares her experience of monitoring her blood sugar levels due to a family history of diabetes. She talks about lifestyle changes she made to prevent diabetes and how technology like glucose sensors helps her manage her health. Luknė also discusses the challenges of using medical devices during her active lifestyle as a cheerleader and provides tips for optimal sensor placement and longevity. Interviewee: Luknė Interviewer: Evelina Wiki page link: https://2024.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/b784074b-306e-47dc-9511-2c5aa903ccf6/5dc878c5-d035-4beb-ba8b-a2498e05a3ff-master.m3u8https://video.igem.org/videos/embed/oEmCCU9tvTfMP8vjz39BLj626052024-09-26T13:38:46.070ZYES2024 TeamsNOhttps://video.igem.org/w/x2eaPkZd2jCYxiGiWTqpENhttps://video.igem.org/lazy-static/thumbnails/2767afcf-6530-4eff-a0ab-0bd794b20e34.jpgCityU-HongKong: 2nd iGEM Greater Bay Area Forum Vlog (2024) [English]This is the vlog from the Synthetic Biology Forum, where leading academic authorities shared insights on cutting-edge synthetic biology theories and technologies. Held for students across Guangdong, Hong Kong, Macau, and the Greater Bay Area, the event featured project presentations, debates on biosafety and ethics, and valuable exchanges of ideas. This forum provided an exceptional platform for students to expand their academic horizons, engage in cross-cultural discussions, and explore the future impact of synthetic biology as a revolutionary field in 21st-century biology. https://2024.igem.wiki/cityu-hongkong/https://static.igem.org/peertube/streaming-playlists/hls/fb372877-0488-4174-ac72-bbe9b3f7d9f6/5c76b6bb-d9a7-4516-85a4-72615d93e751-master.m3u8https://video.igem.org/videos/embed/x2eaPkZd2jCYxiGiWTqpEN1160112024-09-26T14:15:30.964ZYES2024 TeamsNOhttps://video.igem.org/w/1yFLYaaAtqAFX7M3vmksP3https://video.igem.org/lazy-static/thumbnails/b3aa9a1d-f19e-491f-b2c0-a87ebbbf5d32.jpgCityU-HongKong: HK-Macau Symposium Vlog (2024) [English]This is the vlog from the Hong Kong-Macau iGEM Symposium 2024, held at the University of Hong Kong on August 5, 2024. Organized by HKU, HKUST, HK Joint School, and CUHK, this symposium brought together iGEM teams for presentations, networking, and poster sessions. Participants had the opportunity to learn from previous iGEMers, hear from science educators, and connect with talented teams to explore how to take their projects beyond the lab. It was an inspiring and insightful day for the synthetic biology community in Hong Kong and Macau! https://2024.igem.wiki/cityu-hongkong/https://static.igem.org/peertube/streaming-playlists/hls/04905023-f264-4d78-a1be-cefc084376a8/802162a9-da77-4586-8a6a-82fa1e345199-master.m3u8https://video.igem.org/videos/embed/1yFLYaaAtqAFX7M3vmksP3120012024-09-26T14:35:40.105ZYES2024 TeamsNOhttps://video.igem.org/w/wE7JoML9kDHyKeuLvzRrmQhttps://video.igem.org/lazy-static/thumbnails/cb812318-6008-463a-bb08-f0f7e6ac4e53.jpgECUST: design02 (2024) [English]https://2024.igem.wiki/ecust/https://static.igem.org/peertube/streaming-playlists/hls/f8449235-b0e4-47d6-8f27-b24ae0058d14/7646d96f-da54-419d-bd37-0d6cf01454cf-master.m3u8https://video.igem.org/videos/embed/wE7JoML9kDHyKeuLvzRrmQ80162024-09-26T14:20:26.314ZYES2024 TeamsNOhttps://video.igem.org/w/cjevLGr4hjDSCvZak49EaKhttps://video.igem.org/lazy-static/thumbnails/3ea102dc-2295-461e-885d-9c421fd272af.jpgHW-ShanghaiUnited: bilibili-safety (2024) [Chinese]HW-ShanghaiUnited: bilibili-safety (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/5ba03db0-c9b4-412b-bd54-a6a5a750ac9d/704305fa-9379-434c-9ce4-7240235201e6-master.m3u8https://video.igem.org/videos/embed/cjevLGr4hjDSCvZak49EaK770202024-09-26T13:50:53.634ZYES2024 TeamsNOhttps://video.igem.org/w/f9EKzncPsCdq9RVPJxp4Y8https://video.igem.org/lazy-static/thumbnails/03b41b29-3390-45ed-a374-86c488e6ae88.jpgAachen: Animation for Homepage (2024)This is an animation we want to use for our wiki. It shows the core mechanism of our proposed therapy. It is not designed for stand-alone viewing on the video universe.https://static.igem.org/peertube/streaming-playlists/hls/7295c5d2-0004-47bf-80c8-4d746753622b/d68f4efa-fc51-4624-a99d-5cc282533a33-master.m3u8https://video.igem.org/videos/embed/f9EKzncPsCdq9RVPJxp4Y833022024-09-26T14:55:13.577ZYES2024 TeamsNOhttps://video.igem.org/w/vanqYTtvr5mu4owWMihGoEhttps://video.igem.org/lazy-static/thumbnails/54456bae-d4ba-4d89-a500-6c0e1a0a1076.jpgAachen: D314A-5-FC Protein-Video (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/ec27ec15-f6c5-46ae-8764-ea94e30ea0f2/6989baaa-7a98-419d-ad88-37a88fe98c30-master.m3u8https://video.igem.org/videos/embed/vanqYTtvr5mu4owWMihGoE3032024-09-26T15:02:40.411ZYES2024 TeamsNOhttps://video.igem.org/w/wQFPjVZfiyY1h7GCvwKUdqhttps://video.igem.org/lazy-static/thumbnails/6f9fd54d-5124-46fc-887e-021f937c6613.jpgAachen: D314A-C Protein-Video (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/f9be65f2-0941-48c4-80c4-898f03c0d8d8/74346aa0-f3cd-4b1a-b406-dbcce739cf6d-master.m3u8https://video.igem.org/videos/embed/wQFPjVZfiyY1h7GCvwKUdq3012024-09-26T15:04:05.440ZYES2024 TeamsNOhttps://video.igem.org/w/sy6DJBRnMJAaXBkvJph9e3https://video.igem.org/lazy-static/thumbnails/5deb062e-9702-44b1-84b6-afe7963cd8fc.jpgAachen: F186W-D314-5-FC Protein-Video (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/d708e35a-e430-4450-ad90-80a93a6a3104/7c26893f-26be-498c-9086-0825f89814bd-master.m3u8https://video.igem.org/videos/embed/sy6DJBRnMJAaXBkvJph9e33032024-09-26T15:04:59.800ZYES2024 TeamsNOhttps://video.igem.org/w/3wc1ZmQUrUcRzzUkhzKbAFhttps://video.igem.org/lazy-static/thumbnails/c32418d8-ca7c-4ffa-beaf-6c328edf159a.jpgAachen: F186W-D314-C Protein-Video (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/14696142-5c9e-4cdc-8b82-2c70318428cb/1b0c37d1-c1cc-4545-a48a-ff9d170c520e-master.m3u8https://video.igem.org/videos/embed/3wc1ZmQUrUcRzzUkhzKbAF4032024-09-26T15:06:05.268ZYES2024 TeamsNOhttps://video.igem.org/w/aX9oXGEXjPRCJZhYyDmub6https://video.igem.org/lazy-static/thumbnails/c714f7da-a39f-4d83-8819-5fb7362ad3f2.jpgAachen: R91T-D314A-5-FC (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/50955455-5e64-4bfe-9239-f51e88ed3fa9/c85249b1-296b-496a-841a-e1736def2d2d-master.m3u8https://video.igem.org/videos/embed/aX9oXGEXjPRCJZhYyDmub63022024-09-26T15:06:55.091ZYES2024 TeamsNOhttps://video.igem.org/w/ukdKRf32RGHunNKQty9JqZhttps://video.igem.org/lazy-static/thumbnails/d5abcdd1-889b-4623-a8ff-0078faad5f50.jpgAachen: R91T-D314A-C (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/e56ee012-a749-4070-ac44-1a14181dc031/d39a540b-1c23-4b76-bcd8-c52eb9cdad36-master.m3u8https://video.igem.org/videos/embed/ukdKRf32RGHunNKQty9JqZ3032024-09-26T15:07:42.393ZYES2024 TeamsNOhttps://video.igem.org/w/d7g1yS4kCPiAKEMCLoeUWPhttps://video.igem.org/lazy-static/thumbnails/a9ed767c-b417-4393-a121-67e9a92c4bd9.jpgAachen: V152A_F316C_D317G-5-FC (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/620d606b-64e6-4139-b23d-b48a5c256023/3045d9eb-3d36-4b32-a75d-cc5d78680747-master.m3u8https://video.igem.org/videos/embed/d7g1yS4kCPiAKEMCLoeUWP3022024-09-26T15:08:33.243ZYES2024 TeamsNOhttps://video.igem.org/w/urUqwq6ZnwEjaqX36sf2r4https://video.igem.org/lazy-static/thumbnails/2deb0a1d-4d3d-4c6e-8cc0-5d43d5503032.jpgAachen: V152A_F316C_D317G-C (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/e65dc890-23a8-4e1a-ae4b-16bf7f8be8c1/fc055fef-fbdf-424d-8b31-45e33f26409c-master.m3u8https://video.igem.org/videos/embed/urUqwq6ZnwEjaqX36sf2r43012024-09-26T15:09:07.688ZYES2024 TeamsNOhttps://video.igem.org/w/iMaCTDsdycNdGLTnGeUy4phttps://video.igem.org/lazy-static/thumbnails/9473f9dd-5bce-45e8-b83b-e9314b6fe3bf.jpgAachen: V152A-F316C-D317G-D314A-5-FC (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/8ff9c3ea-2946-4f55-bea9-bc8e2f3106f5/f5834139-8e9f-4231-884d-1a7253054cd6-master.m3u8https://video.igem.org/videos/embed/iMaCTDsdycNdGLTnGeUy4p3022024-09-26T15:09:47.573ZYES2024 TeamsNOhttps://video.igem.org/w/sfTHrF6VEo53pz3CHURdtVhttps://video.igem.org/lazy-static/thumbnails/95ee19cd-52ef-4561-a7d8-d1bd6b00d6dd.jpgAachen: V152A-F316C-D317G-D314A-C2 Protein-Video (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/d4a1e35d-d1ed-4e3e-bf34-0957bdeb788b/645fd9cb-f850-4ef2-86d1-f379293825ad-master.m3u8https://video.igem.org/videos/embed/sfTHrF6VEo53pz3CHURdtV4022024-09-26T15:10:39.179ZYES2024 TeamsNOhttps://video.igem.org/w/hxhZq9JKFPX5Sp8pXUfBhThttps://video.igem.org/lazy-static/thumbnails/675b3fb7-39ab-49b6-b380-74f186572ec3.jpgAachen: WT-5-FC Protein-Video (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/85f0bef0-172a-4864-9d18-4f14685ec6cf/dd5fc557-10bd-4ce6-bbc6-d704be4cc02f-master.m3u8https://video.igem.org/videos/embed/hxhZq9JKFPX5Sp8pXUfBhT3022024-09-26T15:11:23.288ZYES2024 TeamsNOhttps://video.igem.org/w/dzdB9QTDfjoK6Pt5xjPznghttps://video.igem.org/lazy-static/thumbnails/180000fa-471c-4819-b6cc-600a34960a4e.jpgAachen: WT-C Protein-Video (2024)Video for our wiki showing a protein that’s being turned.https://static.igem.org/peertube/streaming-playlists/hls/65d0fa23-47a8-4fc2-a785-ecffb71c6ecd/0d281661-27bc-4369-b8f7-c7dfaeee9df0-master.m3u8https://video.igem.org/videos/embed/dzdB9QTDfjoK6Pt5xjPzng3042024-09-26T15:12:07.858ZYES2024 TeamsNOhttps://video.igem.org/w/5MH6GbcU3PoKG6uhGvyZ1whttps://video.igem.org/lazy-static/thumbnails/b98a568c-7511-412f-89b5-7d7513e28d4a.jpgLund: Homepage Methane Remoover (2024)A short clip about cows, climate change and our solution presented as the project advertisement. Video created and edited by Hadiqa Inam.https://static.igem.org/peertube/streaming-playlists/hls/26c65a17-bc48-40ee-8e6d-9be50bab18f2/fe66bee3-b8f6-4f8e-9321-d5f83d9ad4ca-master.m3u8https://video.igem.org/videos/embed/5MH6GbcU3PoKG6uhGvyZ1w2204462024-09-26T15:46:41.735ZYES2024 TeamsNOhttps://video.igem.org/w/8D9VtCx2P3i7JAWzVn1111https://video.igem.org/lazy-static/thumbnails/9defd94d-0b26-41ee-8292-704cca753148.jpgEPFL: Solution part 1 (2024)Animation the 1st step of our solution https://static.igem.org/peertube/streaming-playlists/hls/3ddffd0d-cc54-4c5b-a729-9cfa8d7057b0/5a6f1abd-d9e5-46f4-90cb-7e39f18b8697-master.m3u8https://video.igem.org/videos/embed/8D9VtCx2P3i7JAWzVn11115012024-09-26T16:45:25.526ZYES2024 TeamsNOhttps://video.igem.org/w/oeg1pMKvU2JHqkMQMWUR8jhttps://video.igem.org/lazy-static/thumbnails/fbf3c55a-4180-4fd1-b783-dc8c284ba5d8.jpgEPFL: Solution part 2 (2024)Animation step 2 of our solutionhttps://static.igem.org/peertube/streaming-playlists/hls/b402f7cc-a270-4bbd-afb1-79cd1721efac/99a0c6b4-0d85-4744-a3a8-74817b5451a6-master.m3u8https://video.igem.org/videos/embed/oeg1pMKvU2JHqkMQMWUR8j6012024-09-26T16:45:18.966ZYES2024 TeamsNOhttps://video.igem.org/w/6YjYHSBuDVUEgg3sxw3makhttps://video.igem.org/lazy-static/thumbnails/4b3f6af9-b04c-469d-9e1d-b130d4750a74.jpgEPFL: Solution part 3 (2024)Animation part 3 of our solutionhttps://static.igem.org/peertube/streaming-playlists/hls/305b0a3d-d74a-4c6d-9e6b-ec8a1bb1f7fd/5cd45a12-0b8d-4f11-a293-de6f89285605-master.m3u8https://video.igem.org/videos/embed/6YjYHSBuDVUEgg3sxw3mak2002024-09-26T16:45:25.063ZYES2024 TeamsNOhttps://video.igem.org/w/4ccGgAFYAfJ1CJfFJkzawwhttps://video.igem.org/lazy-static/thumbnails/692f9fe9-9532-4b7e-b169-fb5620a96314.jpgIOANNINA: Inclusivity Page text to speech (2024) [English]This is a text to speech audio file for the Inclusivity Page of our wiki (https://2024.igem.wiki/ioannina/inclusivity) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/19dbcde7-7c4c-4db2-acb4-4fbcf7654986/c06e6718-a0dc-4dbf-986b-f938bc7316ac-master.m3u8https://video.igem.org/videos/embed/4ccGgAFYAfJ1CJfFJkzaww2693052024-09-26T19:38:33.322ZYES2024 TeamsNOhttps://video.igem.org/w/9DJtm1X6unxt4oGFc7smvihttps://video.igem.org/lazy-static/thumbnails/259d93b4-5b16-41d6-86df-cdc7dbab3213.jpgIOANNINA: Collaborations Page text to speech (2024) [English]This is a text to speech audio file for the Collaborations Page of our wiki (https://2024.igem.wiki/ioannina/collaborations) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/460dcd80-7a89-4abf-8563-97580eae4183/63ef315c-b175-4339-ba8e-12f77641ce5c-master.m3u8https://video.igem.org/videos/embed/9DJtm1X6unxt4oGFc7smvi790032024-09-26T19:45:58.031ZYES2024 TeamsNOhttps://video.igem.org/w/jRcMUGLiY7q4G7zbPiF4ikhttps://video.igem.org/lazy-static/thumbnails/5b570d28-51b5-4a99-8f85-53bc74dabd8e.jpgIOANNINA: Contribution Page text to speech (2024) [English]This is a text to speech audio file for the Contribution Page of our wiki (https://2024.igem.wiki/ioannina/contribution) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/98a33518-0263-47b9-ad86-5c7bd48938e1/88c630ad-e39c-40ed-b90e-de13c1e2755c-master.m3u8https://video.igem.org/videos/embed/jRcMUGLiY7q4G7zbPiF4ik864012024-09-26T20:35:09.802ZYES2024 TeamsNOhttps://video.igem.org/w/3FwT7szTM9N3DW2P7qHhKjhttps://video.igem.org/lazy-static/thumbnails/461ea90f-e50c-4f5a-9c73-597349047489.jpgThessaly: Hardware Proof of Concept (2024)The Proof of Concept video for the Thaelia (iGEM Thessaly 2024) team. In the video we demonstrate how our system is capable of detecting small concentrations of ethanol placed on the cotton pads, by transferring air from the main chamber towards the sensor.https://static.igem.org/peertube/streaming-playlists/hls/15b750ca-2168-4d0c-a201-3e67ff1507f8/aedfa6a8-f3da-4762-b6f0-3bc9e8b4a88d-master.m3u8https://video.igem.org/videos/embed/3FwT7szTM9N3DW2P7qHhKj760332024-09-27T08:46:19.902ZYES2024 TeamsNOhttps://video.igem.org/w/eLvzznFEsxqPEyUzFB6DGuhttps://video.igem.org/lazy-static/thumbnails/56f426dd-f0f1-44c9-bbaf-70e287a5deb7.jpgUCalgary: Maren July Week 3.2 (2024) [English]UCalgary: Maren July Week 3.2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/6f7dc1d1-0fb4-42da-bbd3-81f6a6037ef8/dc6b856e-315f-4c31-8c47-8469299086de-master.m3u8https://video.igem.org/videos/embed/eLvzznFEsxqPEyUzFB6DGu22002024-09-26T21:45:14.762ZYES2024 TeamsNOhttps://video.igem.org/w/8vgzKqT5G7XNefzujELjdShttps://video.igem.org/lazy-static/thumbnails/b3201f2b-9e9e-4437-8d8e-a4ef69cba93e.jpgUCalgary: Maren July Week 1.2 (2024) [English]UCalgary: Maren July Week 1.2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/3cc62482-dd8c-4180-b80b-118a7a7b7d72/f275ccfc-a8be-4c17-aae6-7615d963ebd4-master.m3u8https://video.igem.org/videos/embed/8vgzKqT5G7XNefzujELjdS16012024-09-26T21:45:43.325ZYES2024 TeamsNOhttps://video.igem.org/w/sG59iej86zTZP5qfyR4Jdchttps://video.igem.org/lazy-static/thumbnails/6a2be4ff-bec5-4c13-82b5-c95f9d89021a.jpgUCalgary: Maren May Week 1.2 (2024) [English]UCalgary: Maren May Week 1.2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/d825e8c1-c538-47ec-865b-e82c50d756b3/fb7e9e31-eae8-48ad-a1ba-ea1c097b3ed1-master.m3u8https://video.igem.org/videos/embed/sG59iej86zTZP5qfyR4Jdc19002024-09-26T21:46:10.214ZYES2024 TeamsNOhttps://video.igem.org/w/uXE1HwDagwMUZVsz5cra29https://video.igem.org/lazy-static/thumbnails/08c6b71d-4ccf-45d9-93b0-d2246cbec15c.jpgAachen: Hardware Website Animation (2024)This video is an animation displaying the inner working of our MAIK microfluidic system, for use as an animation on the wiki.https://static.igem.org/peertube/streaming-playlists/hls/ea85373c-acd8-43d6-bcbb-38d6b9f240de/517195c1-b77f-47f5-8bdc-5f036fd6efd9-master.m3u8https://video.igem.org/videos/embed/uXE1HwDagwMUZVsz5cra2926022024-09-26T23:26:04.923ZYES2024 TeamsNOhttps://video.igem.org/w/f54Enq2oNU7Tmrs7hsa8PThttps://video.igem.org/lazy-static/thumbnails/af2479bc-1530-4ad0-bb50-fc51f7f046ed.jpgUNC-ChapelHill: Univision Interview (2024) [Spanish]Entrevista de UNC iGEM con Univision sobre el efecto de PFAS en la comunidad de North Carolina.https://static.igem.org/peertube/streaming-playlists/hls/71f12c3e-1edd-4698-afcd-fbd421f2335d/b8f73824-656c-4554-96bd-465fc2029bed-master.m3u8https://video.igem.org/videos/embed/f54Enq2oNU7Tmrs7hsa8PT1780142024-09-27T00:55:20.832ZYES2024 TeamsNOhttps://video.igem.org/w/2Ujo9D67RhFvrEauQWhmmKhttps://video.igem.org/lazy-static/thumbnails/c7cd8603-5bb7-4334-a620-a7dc003a261a.jpgUNC-ChapelHill: PFAS and Antibody (2024)Model of PFAS and antibody.https://static.igem.org/peertube/streaming-playlists/hls/0f672497-65ad-47ed-b01b-2d5467a986e3/fbe21343-88bd-486c-9e0a-058cbf647758-master.m3u8https://video.igem.org/videos/embed/2Ujo9D67RhFvrEauQWhmmK160142024-09-27T01:05:23.700ZYES2024 TeamsNOhttps://video.igem.org/w/gctMSbUvKcE44tsajYZJCxhttps://video.igem.org/lazy-static/thumbnails/17ec3a03-7a3d-41a3-8668-337244dc5f7b.jpgWashington: Rochester x Washington Video Collab (2024) [English]In our video with Rochester iGEM, we introduced protein overexpression, a widely used synbio technique, and highlighted Rochester iGEM's 2024 project as a unique example of how protein overexpression and synbio tools as a whole can be used to address environmental issues. Read more on our wiki: https://2024.igem.wiki/washington/education. Video created by Akira Morishita. Video edited by Addie Lomax.https://static.igem.org/peertube/streaming-playlists/hls/7b136357-111f-46a2-acbe-1b0c7ecc4217/706fd241-5edc-41c3-a095-f464ef288f0e-master.m3u8https://video.igem.org/videos/embed/gctMSbUvKcE44tsajYZJCx6870112024-09-27T04:45:34.550ZYES2024 TeamsNOhttps://video.igem.org/w/xmZC1kvGSntTL4Afgwz6Fnhttps://video.igem.org/lazy-static/thumbnails/0321c7d7-f4ac-48a8-bd72-f538099620b1.jpgUSAFA: BioSiment Musical Parody (2024) [English]USAFA: BioSiment Musical Parody (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/fdf9af16-3b71-48aa-96a5-930ccb928187/894ba01b-00ef-4268-a665-de9a03ce101e-master.m3u8https://video.igem.org/videos/embed/xmZC1kvGSntTL4Afgwz6Fn2210452024-09-27T02:29:12.388ZYES2024 TeamsNOhttps://video.igem.org/w/dWYZyfwu9LCZ2CavVpe5cbhttps://video.igem.org/lazy-static/thumbnails/8f375001-b55f-4481-a930-8f95ffd7b51d.jpgHW-ShanghaiUnited: BeijingTime-edu (2024) [Chinese]HW-ShanghaiUnited: BeijingTime-edu (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/68daf345-994b-49c2-9e64-80185b48e770/980da466-7c71-4779-9c3c-e33d300040a4-master.m3u8https://video.igem.org/videos/embed/dWYZyfwu9LCZ2CavVpe5cb119082024-09-27T02:53:45.929ZYES2024 TeamsNOhttps://video.igem.org/w/3c27QLSa3o8NHm722ronfyhttps://video.igem.org/lazy-static/thumbnails/ebecd8e7-543b-4fd1-be5f-0f7ea9278555.jpgXMU-China: Team members introduction (2024) [English]This is a video introducing the members of the 2024 XMU-China teamhttps://static.igem.org/peertube/streaming-playlists/hls/11bc25d2-e547-46d8-9e40-f573d28a6620/d425a8ff-fc2f-4c86-afd3-0f15db06a496-master.m3u8https://video.igem.org/videos/embed/3c27QLSa3o8NHm722ronfy680962024-09-27T03:00:46.130ZYES2024 TeamsNOhttps://video.igem.org/w/aZFzHz3hfuQr3vZg8frVKQhttps://video.igem.org/lazy-static/thumbnails/1d4e2314-43bc-47aa-9611-1e77d01c0d00.jpgUTokyo: Eye_home (2024)When your vision changes, your life will change.https://static.igem.org/peertube/streaming-playlists/hls/50f00922-c3bb-41f6-b34a-44e2d30b87ca/113ee4cf-4a7e-471a-bec3-c866c6769cea-master.m3u8https://video.igem.org/videos/embed/aZFzHz3hfuQr3vZg8frVKQ210162024-09-27T06:26:42.414ZPOIROTUTokyoYES2024 TeamsNOhttps://video.igem.org/w/2p5Q4jtFrDQ4kMri7VeFDzhttps://video.igem.org/lazy-static/thumbnails/ca2c019d-c076-48d6-8acc-ea27ae33d1dc.jpgKeystone: Latest Responses for hearing your genes music competition (2024)Keystone: Latest Responses for hearing your genes music competition (2024)https://static.igem.org/peertube/streaming-playlists/hls/0b523898-f005-4c64-94f8-fcd9a7e7fad7/6eb143fb-ef3d-4fae-856a-1fbb10ce214b-master.m3u8https://video.igem.org/videos/embed/2p5Q4jtFrDQ4kMri7VeFDz122042024-09-27T06:30:35.807ZgenemusicYES2024 TeamsNOhttps://video.igem.org/w/1Ze3rC5XfM8tFjmvca9kpEhttps://video.igem.org/lazy-static/thumbnails/9c707749-13e3-4012-a98a-40e8b09ba4f3.jpgHS-Beta: A collection of our works (2024) [English]we have made lots of attempts to contact a collection of  professionals in different fieldshttps://static.igem.org/peertube/streaming-playlists/hls/07fd6eaf-c0d3-45fc-8092-cbeb45b476f8/66147e91-e204-466f-8ac1-6119ef9155a4-master.m3u8https://video.igem.org/videos/embed/1Ze3rC5XfM8tFjmvca9kpE88092024-09-27T06:35:13.004ZYES2024 TeamsNOhttps://video.igem.org/w/wctwng2k8SA4xqowmDjRh7https://video.igem.org/lazy-static/thumbnails/5b003876-bac8-4e22-a202-ab972dced8dc.jpgSongshan-Lake: Team Assemble (2024) [Chinese]Songshan-Lake: Team Assemble (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/f48c4da2-e43a-47a9-ba53-ab8b2e9f4eaa/7041b851-5663-45c4-91b6-17c0154506a7-master.m3u8https://video.igem.org/videos/embed/wctwng2k8SA4xqowmDjRh7189012024-09-27T06:58:56.699ZeducationYES2024 TeamsNOhttps://video.igem.org/w/xoWcVQw3cTLd8scAEshX5Khttps://video.igem.org/lazy-static/thumbnails/16b65054-6023-4880-967a-acfee4c92ada.jpgZQT-Nanjing: cow (2024) [English]cowhttps://static.igem.org/peertube/streaming-playlists/hls/fe3f111b-5e85-41ed-a28b-7977d32037af/ae0a9f71-642c-41f7-ad96-5eac4aeddec3-master.m3u8https://video.igem.org/videos/embed/xoWcVQw3cTLd8scAEshX5K820872024-09-27T07:14:22.622ZYES2024 TeamsNOhttps://video.igem.org/w/rqieNo6hXrhL5bTK96bgYMhttps://video.igem.org/lazy-static/thumbnails/47e89df3-130b-4fd5-ae43-085bc5368a1e.jpgSongshan-Lake: Wet lab vlog 1 (2024) [Chinese]Songshan-Lake: Wet lab vlog 1 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/cdd8f0b2-d392-461e-8456-15d3a8095c19/f9fcd439-8507-4d82-a748-830358711277-master.m3u8https://video.igem.org/videos/embed/rqieNo6hXrhL5bTK96bgYM122012024-09-27T07:02:55.557ZvlogeducationlabYES2024 TeamsNOhttps://video.igem.org/w/b49gJRP5Lu93VnGwvktk3whttps://video.igem.org/lazy-static/thumbnails/1e2acae8-1f69-4e62-8506-b77109f3a132.jpgSongshan-Lake: Wet lab vlog 2 (2024) [Chinese]Songshan-Lake: Wet lab vlog 2 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/516bb71f-08d5-4f20-bd18-c344a5e82646/ce55fb01-3b47-4b56-8103-d199ce831b07-master.m3u8https://video.igem.org/videos/embed/b49gJRP5Lu93VnGwvktk3w70002024-09-27T07:09:22.733ZvlogeducationlabYES2024 TeamsNOhttps://video.igem.org/w/8gUEHJCw6fptRJap5N4msihttps://video.igem.org/lazy-static/thumbnails/e7648f24-58cc-4ad9-a9a8-b68106d81cd4.jpgSongshan-Lake: Wet lab vlog 3 (2024) [Chinese]Songshan-Lake: Wet lab vlog 3 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/3ae895b0-1de6-4753-843c-50b31e1680dd/ce6e13f2-684b-495b-ab0a-e35b23fd7f8d-master.m3u8https://video.igem.org/videos/embed/8gUEHJCw6fptRJap5N4msi100002024-09-27T07:11:51.515ZvlogeducationlabYES2024 TeamsNOhttps://video.igem.org/w/jBRrYLjgeRN6fRm2NYeCbJhttps://video.igem.org/lazy-static/thumbnails/eb9ae158-b5c8-4f2a-b5fb-1d1e4ba5459f.jpgSongshan-Lake: Mini-lecture of our solution to algae bloom (2024) [Chinese]Songshan-Lake: Mini-lecture of our solution to algae bloom (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/96c6004d-bbde-4ca6-b089-ea31925a5706/3747afed-770d-48a2-994a-de2c81907c82-master.m3u8https://video.igem.org/videos/embed/jBRrYLjgeRN6fRm2NYeCbJ36042024-09-27T07:12:23.707Zeducationalgae bloomlectureYES2024 TeamsNOhttps://video.igem.org/w/qvKEbJhzAiA3o8bU1AtA1Vhttps://video.igem.org/lazy-static/thumbnails/a6ce5adf-59c0-4eef-84fe-ffd92e15afa5.jpgAachen: Homepage Animation 4K (2024)A high-resolution version of our homepage animation. https://static.igem.org/peertube/streaming-playlists/hls/c682cd76-9d34-431e-b1c5-befbc82e9655/feea48d3-024c-498c-a02a-be82ff8edaba-master.m3u8https://video.igem.org/videos/embed/qvKEbJhzAiA3o8bU1AtA1V33022024-09-27T07:46:56.616ZYES2024 TeamsNOhttps://video.igem.org/w/uQszGDCipjgDW7yWdCwzsRhttps://video.igem.org/lazy-static/thumbnails/9775b174-0538-4d0d-8fd3-f87152d9b3b6.jpgWarwick: PDEs Population Model Simulation (noisy, radial) (2024)https://2024.igem.wiki/warwick/model Francesco Papinihttps://static.igem.org/peertube/streaming-playlists/hls/e983f6ef-9397-49d1-a500-e39c246491a9/fa8474a7-6c49-4ad2-8094-ee9714a597ba-master.m3u8https://video.igem.org/videos/embed/uQszGDCipjgDW7yWdCwzsR200102024-09-27T07:43:09.903ZYES2024 TeamsNOhttps://video.igem.org/w/e9YHw5Cc2Hm4nDarD6h92Chttps://video.igem.org/lazy-static/thumbnails/518a52e2-f65c-4a2d-903f-60ec1004bc92.jpgWarwick: PDEs Population Model Simulation (noisy, linear) (2024)https://2024.igem.wiki/warwick/model Francesco Papinihttps://static.igem.org/peertube/streaming-playlists/hls/6a87b482-8cc7-4492-ac55-ff33a2e92b2e/e4723cfe-61e3-44ff-ac16-327e9f2b3d5e-master.m3u8https://video.igem.org/videos/embed/e9YHw5Cc2Hm4nDarD6h92C280112024-09-27T08:00:39.856ZYES2024 TeamsNOhttps://video.igem.org/w/fHJ7fPppDDHeUwE5896Fbahttps://video.igem.org/lazy-static/thumbnails/a5323cce-07fe-47c9-a44a-471bd01ee26e.jpgAachen: AlphaFold Decoded: 3D Geometry (Lesson 7) (2024) [English]For more information check out our wiki: https://2024.igem.wiki/aachen/educationhttps://static.igem.org/peertube/streaming-playlists/hls/773362bc-fd0a-4129-9bd8-b377fab8bf71/f5132511-9731-49c6-8dbb-7238874f73c7-master.m3u8https://video.igem.org/videos/embed/fHJ7fPppDDHeUwE5896Fba19780162024-09-27T08:50:59.953ZYES2024 TeamsNOhttps://video.igem.org/w/dPDAgEnHTiG72GwVPUvaByhttps://video.igem.org/lazy-static/thumbnails/18aa7280-7fc1-400d-906c-b870e057794d.jpgThessaly: Testing the Fan System of the hardware (2024)Here we test the fan system of our hardware.https://static.igem.org/peertube/streaming-playlists/hls/67d4c98c-a00e-4d7d-a614-8ec831a424ba/4e9c8104-3f14-42dd-800b-067e6fdf21f4-master.m3u8https://video.igem.org/videos/embed/dPDAgEnHTiG72GwVPUvaBy24042024-09-27T09:52:06.459ZYES2024 TeamsNOhttps://video.igem.org/w/7g3e9hVEio8XNanBKuuCQDhttps://video.igem.org/lazy-static/thumbnails/0773039f-8b81-4f48-8260-6da2b9478885.jpgHiZJU-China: 「 Biosyn Bridge Project 」The team HiZJU-China is doing science popularization of syn...The team HiZJU-China is doing science popularization of synthetic biology in Chong Hwa Independent High School, Malaysia This is our team link:https://2024.igem.wiki/hizju-china/https://static.igem.org/peertube/streaming-playlists/hls/32b05c57-0278-4d7b-b4b2-ea5e87585055/ce0d1dbb-3bba-4f82-aa8e-716243118680-master.m3u8https://video.igem.org/videos/embed/7g3e9hVEio8XNanBKuuCQD42082024-09-27T09:58:00.777ZYES2024 TeamsNOhttps://video.igem.org/w/tcnxUdzQanDtGUojysRLFxhttps://video.igem.org/lazy-static/thumbnails/c36cf6ac-adfa-45ff-acb1-3b1c954aa4af.jpgMarburg: H. brasiliensis Cultivation Zones (2024) [English]Marburg: H. brasiliensis Cultivation Zones (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/dc3d34b9-4843-462c-87ff-fde1749613ed/24be0a4a-7dcc-4e6e-a581-cc6bcf8cedaf-master.m3u8https://video.igem.org/videos/embed/tcnxUdzQanDtGUojysRLFx110272024-09-27T11:00:19.158ZPlant SynBioAgricultureRubberGeospatial AnalysisGISYES2024 TeamsNOhttps://video.igem.org/w/tbZCyxHGyYqnuR6fYjdNKUhttps://video.igem.org/lazy-static/thumbnails/a74551f6-835a-4f4a-bf2d-f9dc4112120f.jpgMarburg: Hotspot Analysis - South American Leaf Blight - Annual (2024)Marburg: Hotspot Analysis - South American Leaf Blight - Annual (2024)https://static.igem.org/peertube/streaming-playlists/hls/dc2fb28e-f539-4c0b-81cc-dc543994cf6a/d7dc9b8a-1255-424f-a6c7-b9b501b26815-master.m3u8https://video.igem.org/videos/embed/tbZCyxHGyYqnuR6fYjdNKU11082024-09-27T11:04:26.564ZPlantSynBioSALBRubberGeospatial AnalysisGISYES2024 TeamsNOhttps://video.igem.org/w/xoqYHHUGsa3MMmfpzhwJwVhttps://video.igem.org/lazy-static/thumbnails/4b44fc2d-d593-4b8c-b833-6fd97944fa49.jpgMarburg: Hotspot Analysis - South American Leaf Blight - Monthly (2024)Marburg: Hotspot Analysis - South American Leaf Blight - Monthly (2024)https://static.igem.org/peertube/streaming-playlists/hls/fe2d0df9-97c0-4405-ad4e-e0b16e03f6f9/8683d57b-8c33-4fc6-8715-ab09134b3e3f-master.m3u8https://video.igem.org/videos/embed/xoqYHHUGsa3MMmfpzhwJwV590112024-09-27T11:07:38.966ZPlant SynBioSALBRubberGeospatial AnalysisGISYES2024 TeamsNOhttps://video.igem.org/w/pw95oaShhqfpDkUeArEVT8https://video.igem.org/lazy-static/thumbnails/210763ff-b038-4f42-b952-3684d3996697.jpgPatras: animation (2024)lipid animation 2024.igem.wiki/patrashttps://static.igem.org/peertube/streaming-playlists/hls/be777aa0-eaf0-4acb-b9c9-5f5c1d4d8009/b89a4131-b367-433a-86d3-dbabe36a0e6c-master.m3u8https://video.igem.org/videos/embed/pw95oaShhqfpDkUeArEVT812032024-09-27T13:29:10.137ZYES2024 TeamsNOhttps://video.igem.org/w/xpBi8HRRC3Svpx8WyWUnD2https://video.igem.org/lazy-static/thumbnails/93897815-03ef-4089-b4d2-ff7c9a302ec3.jpgToulouse-INSA-UPS: BioMoon Home Page (2024)This video contains our introduction for the home page. Credits - Esahttps://static.igem.org/peertube/streaming-playlists/hls/fe57281f-976a-41ce-9561-d8f2e5fc15d7/b5130cf9-7fc3-4922-a6aa-a32bd8b56bc3-master.m3u8https://video.igem.org/videos/embed/xpBi8HRRC3Svpx8WyWUnD228021442024-09-27T13:28:43.621ZBioMoonToulousespaceYES2024 TeamsNOhttps://video.igem.org/w/pq8nmwiM3fA4c9BsLcFJEChttps://video.igem.org/lazy-static/thumbnails/700fb6df-479e-440a-8ab0-1fd371572afd.jpgNAU-CHINA: Hands-on Experience of Meet Flower Pounding (2024)NAU-CHINA is doing science popularization of synthetic biology & flower pounding in the rural area of Anyang town, Guangxi Province, China This is our team link:https://2024.igem.wiki/nau-china/https://static.igem.org/peertube/streaming-playlists/hls/bda09498-bcf8-4293-8d0f-df79ded687f0/3c0e089a-24ca-410e-8043-8adccfc37502-master.m3u8https://video.igem.org/videos/embed/pq8nmwiM3fA4c9BsLcFJEC250102024-09-27T17:12:15.374ZYES2024 TeamsNOhttps://video.igem.org/w/jrv8hkxeCvNGk97zbkzqZQhttps://video.igem.org/lazy-static/thumbnails/583d1e2f-8403-433e-bedf-7f395a1bb3d1.jpgNAU-CHINA: Citywalk Vlog-Nanjing (2024) [Chinese]NAU-CHINA launched an online platform called ICII(Into China, Into iGEM). We record this video as a part of the Science Gallery on the platform. This video uses Citywalk, a popular way of exploring a city in China, to tell others about the link between SynBio and Nanjing. We use the traditional symbol of Nanjing-brocade and producing silk protein and spider silk protein via SynBio to attract audiences' attention This is our team link:https://2024.igem.wiki/nau-china/https://static.igem.org/peertube/streaming-playlists/hls/95540a15-279e-42da-8aa3-fdafc34d5b52/8c5e46fc-439e-4f71-8913-4e067aded9b7-master.m3u8https://video.igem.org/videos/embed/jrv8hkxeCvNGk97zbkzqZQ1700122024-09-27T17:19:08.558ZYES2024 TeamsNOhttps://video.igem.org/w/gPMgeJzgLrGnWKrBDSKtHBhttps://video.igem.org/lazy-static/thumbnails/d64e8dff-390b-44d2-b0d1-7626f9b28aef.jpgNAU-CHINA: Campus Talk (2024) [Chinese]This video is a record of our Campus Talk at Nanjing Agricultural University, telling the iGEM competition and introducing SynBio This is our team link:https://2024.igem.wiki/nau-china/https://static.igem.org/peertube/streaming-playlists/hls/8024ee64-8e43-4a88-948a-27bec9dfaa71/1ff93534-40fd-4a9f-9361-bb69050e3f07-master.m3u8https://video.igem.org/videos/embed/gPMgeJzgLrGnWKrBDSKtHB5487042024-09-27T20:03:36.400ZYES2024 TeamsNOhttps://video.igem.org/w/bDm44TAp5azFKyuLymCttfhttps://video.igem.org/lazy-static/thumbnails/ec12fdc7-3576-4b91-a5a0-91eec365563e.jpgNAU-CHINA: EMBRACE (2024)This is our team link:https://2024.igem.wiki/nau-china/https://static.igem.org/peertube/streaming-playlists/hls/5632439d-2384-4503-a70e-a61ef1689ad8/e7c74068-e71d-4faa-9cc0-5edc3a86759e-master.m3u8https://video.igem.org/videos/embed/bDm44TAp5azFKyuLymCttf6042024-09-27T21:01:55.023ZYES2024 TeamsNOhttps://video.igem.org/w/9nSnioXs7i8ut1f9wuqNxnhttps://video.igem.org/lazy-static/thumbnails/64b2d323-2534-4020-9b7b-9092ef763125.jpgNKU-China: yasuo (2024)Cellular Modeling video used in wiki:https://2024.igem.wiki/NKU-China/https://static.igem.org/peertube/streaming-playlists/hls/43d6c4b3-8951-4760-88df-b7db683a48d3/43c06059-bea4-4412-b73e-a192a681e32c-master.m3u8https://video.igem.org/videos/embed/9nSnioXs7i8ut1f9wuqNxn3032024-09-27T16:57:21.051ZmodelYES2024 TeamsNOhttps://video.igem.org/w/vN8HdNRfkwuHWga7W5k1BKhttps://video.igem.org/lazy-static/thumbnails/207b91b6-310c-4370-9ee7-4c03c310a9ae.jpgNKU-China: yuan (2024)Cellular Modeling video used in wiki:https://2024.igem.wiki/NKU-China/https://static.igem.org/peertube/streaming-playlists/hls/f149fc87-f8bd-40a5-b5de-45db4ef11011/b335b789-bd31-441b-ab69-ff472e514025-master.m3u8https://video.igem.org/videos/embed/vN8HdNRfkwuHWga7W5k1BK3082024-09-27T20:04:55.192ZCellular ModelingYES2024 TeamsNOhttps://video.igem.org/w/7y3Kc1ASbUwmUCcCz4taWnhttps://video.igem.org/lazy-static/thumbnails/4aea809d-c3f0-4f0c-bc35-84cd1d50c9c7.jpgHamburg: Kindergarten puppet show (2024) [German]-- Video only available in German -- We had an amazing Science Day at the kindergarten! We wanted to show the children how fascinating science is, and we think we succeeded. We started the day with a self-written puppet show, which the children loved. You can watch the performance in the video. We've also made the script available on our team wiki. You can download it in German and English. Have a look! https://2024.igem.wiki/hamburg/educationhttps://static.igem.org/peertube/streaming-playlists/hls/351052f5-129c-4880-8e48-d6bfcc6b761d/bca0b037-b63a-4ec6-b0ca-caf7863a253b-master.m3u8https://video.igem.org/videos/embed/7y3Kc1ASbUwmUCcCz4taWn3125112024-09-27T17:04:52.142Zpuppet showkindergartenYES2024 TeamsNOhttps://video.igem.org/w/8iE41Vzt8XS68R8Z4z5Ubohttps://video.igem.org/lazy-static/thumbnails/4c6e3044-6fb4-441f-80d8-9c63e4c806ea.jpgHiZJU-China: Introduction and Demonstration of Water Environment Monitoring System Based on STM32...Introduction and Demonstration of Water Environment Monitoring System Based on STM32 This is our team wiki: https://2024.igem.wiki/hizju-china/https://static.igem.org/peertube/streaming-playlists/hls/3b2710a9-9082-4e1e-b4df-1788b48deefa/da7bd0b8-cef4-414e-81c2-1947d939c663-master.m3u8https://video.igem.org/videos/embed/8iE41Vzt8XS68R8Z4z5Ubo4440392024-09-27T21:01:10.816ZYES2024 TeamsNOhttps://video.igem.org/w/69QN91PVHfX1xJiTEiHXMLhttps://video.igem.org/lazy-static/thumbnails/6df348e2-f1f7-4261-af7c-5d542c84f72b.jpgIOANNINA: Kahoot - Golden Ticket to Science (2024)A Kahoot demonstration for our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/29b9b6f9-a0d3-4c08-b201-cb9877045a92/9f56cf5c-b843-4c89-9f16-3488a3807c11-master.m3u8https://video.igem.org/videos/embed/69QN91PVHfX1xJiTEiHXML26022024-09-27T21:04:45.960ZYES2024 TeamsNOhttps://video.igem.org/w/9HppuhSCQkLUUzuXqbS6EShttps://video.igem.org/lazy-static/thumbnails/88350612-503b-47d6-99fc-36832c3b37be.jpgIOANNINA: Bio-pic-nic (2024)A video from a Bio-pic-nic event we did, for our wiki.https://static.igem.org/peertube/streaming-playlists/hls/46910715-6183-48d2-afb2-d08cb5bbb6b2/f665d5b1-43e8-44d8-915c-b0271f060ef8-master.m3u8https://video.igem.org/videos/embed/9HppuhSCQkLUUzuXqbS6ES30072024-09-27T21:04:56.549ZYES2024 TeamsNOhttps://video.igem.org/w/ftR3rhnz34mg37XSxzRSCChttps://video.igem.org/lazy-static/thumbnails/525dcb69-ce9c-479a-8672-9886848fd048.jpgIOANNINA: Tedx 360 (2024)A small Tedx video for our wiki.https://static.igem.org/peertube/streaming-playlists/hls/75433f09-4439-48ff-a977-d044b47e086c/6e4ab479-3795-4e0d-9589-605f60b81acf-master.m3u8https://video.igem.org/videos/embed/ftR3rhnz34mg37XSxzRSCC10012024-09-27T21:05:04.589ZYES2024 TeamsNOhttps://video.igem.org/w/3zeLhy95JWbuGd31uDoeKxhttps://video.igem.org/lazy-static/thumbnails/484dd89f-3524-4553-9b70-ab062c404f88.jpgHKPOLYU: HER2-Fc-EGFR animation (2024)https://2024.igem.wiki/hkpolyu/https://static.igem.org/peertube/streaming-playlists/hls/14d64dc6-bf46-4dfc-8371-b1d8e2e925f1/e2ceba77-d214-45e4-964c-7268e3582475-master.m3u8https://video.igem.org/videos/embed/3zeLhy95JWbuGd31uDoeKx4002024-09-27T19:15:59.955ZYES2024 TeamsNOhttps://video.igem.org/w/kM1YEwq2K3e7B7zwF296cwhttps://video.igem.org/lazy-static/thumbnails/f6f7214c-541e-4c31-99da-aa9e7ff84e36.jpgIISER-TVM: home page video (2024)this video is for home headerhttps://static.igem.org/peertube/streaming-playlists/hls/a026b4ce-024d-4440-b217-63c05a2ff800/5af3cc58-af45-4834-b769-7e60a2b26a5a-master.m3u8https://video.igem.org/videos/embed/kM1YEwq2K3e7B7zwF296cw604912024-09-27T19:37:54.330ZYES2024 TeamsNOhttps://video.igem.org/w/eVNJUVpPH1oGMFLLB1jjhNhttps://video.igem.org/lazy-static/thumbnails/214952fe-50d9-4e29-8e51-73d7b99d1c42.jpgHKPOLYU: Nanobody Animation (2024)https://2024.igem.wiki/hkpolyu/https://static.igem.org/peertube/streaming-playlists/hls/70ca06e0-27ed-4186-bce2-03a56b0ca606/e1fc83c6-6d5e-4420-8e24-6eabecd021e4-master.m3u8https://video.igem.org/videos/embed/eVNJUVpPH1oGMFLLB1jjhN4012024-09-27T19:45:35.869ZYES2024 TeamsNOhttps://video.igem.org/w/rS7nwTWGcZUGH6vLn9thF2https://video.igem.org/lazy-static/thumbnails/8794b8fb-b0f8-4e87-86b4-184b7f00fc41.jpgHKPOLYU: Panobody animation (2024)https://2024.igem.wiki/hkpolyu/https://static.igem.org/peertube/streaming-playlists/hls/d17394d8-33ab-4996-a9cc-e222ff46ce6f/8027dfd1-fc12-436c-ae4b-95382199c834-master.m3u8https://video.igem.org/videos/embed/rS7nwTWGcZUGH6vLn9thF2402332024-09-27T19:46:02.538ZYES2024 TeamsNOhttps://video.igem.org/w/tghHoC1RX2ukNW2Mp3FsBchttps://video.igem.org/lazy-static/thumbnails/4b34e37e-e162-4dea-8b1a-45c6018dc9c4.jpgHKPOLYU: sec-HER2-Fc-EGFR animation (2024)https://2024.igem.wiki/hkpolyu/https://static.igem.org/peertube/streaming-playlists/hls/dcc93354-44fb-4b81-8f52-764a65a226f9/9518ed56-93ee-4a1c-9ed7-2780f8540c27-master.m3u8https://video.igem.org/videos/embed/tghHoC1RX2ukNW2Mp3FsBc4012024-09-27T21:01:45.599ZYES2024 TeamsNOhttps://video.igem.org/w/9M4QDEsVYjTP6FZr7gRNzShttps://video.igem.org/lazy-static/thumbnails/cdb068e9-93dd-4698-be8f-ed048dcb2a91.jpgUESTC-China How does Spetex work (2024) [English]This provides a tutorial video on the use of our hardware devices. https://2024.igem.wiki/uestc-china/https://static.igem.org/peertube/streaming-playlists/hls/4713f1d5-7704-4b38-8912-20332094bb3c/5cb7cb0e-a0d9-46bc-afec-9267c3bef066-master.m3u8https://video.igem.org/videos/embed/9M4QDEsVYjTP6FZr7gRNzS900432024-09-27T20:54:30.619ZYES2024 TeamsNOhttps://video.igem.org/w/5bxe9K75BYQYJVjwQ33JTqhttps://video.igem.org/lazy-static/thumbnails/3c783618-7556-4626-bc55-562da46d9518.jpgIOANNINA: ON AIR podcast Episode 3-Interview with Theologos Mihailidis (our Primary PI) (2024) [G...The third episode of our ON AIR podcast, where we interview Theologos Mihailidis our Primary PI.https://static.igem.org/peertube/streaming-playlists/hls/21dd3c8b-49dc-442b-bcdc-e81ee2fa217e/0be80d6b-161c-47fc-9ead-cd4ff23e4667-master.m3u8https://video.igem.org/videos/embed/5bxe9K75BYQYJVjwQ33JTq1767012024-09-27T21:29:19.484ZYES2024 TeamsNOhttps://video.igem.org/w/onkSAqwUJNMCAXRokCBdVEhttps://video.igem.org/lazy-static/thumbnails/0a87f60b-7e69-4cf0-a66f-b326925cb0fc.jpgSynthAfrica - Exploring Career Pathways in Synthetic Biology with Sandra MatinyiOn September 27th at 15:00 UTC we hosted our second event of the year, a webinar with Sandra Matinyi, Co-Founder & Executive Director of Nuo Bioscience, themed 'Exploring Career Pathways in Synthetic Biology: Opportunities for Innovation and Growth' to raise awareness about the career possibilities within this field and to inspire the next generation of African scientists, innovators, and entrepreneurshttps://static.igem.org/peertube/streaming-playlists/hls/b523ea9b-35f2-4aee-8309-66b208191d70/14e65cc1-7910-4156-8ae4-40b620d3213d-master.m3u8https://video.igem.org/videos/embed/onkSAqwUJNMCAXRokCBdVE2711042024-09-27T23:00:57.235ZYESiGEM CommunityNOhttps://video.igem.org/w/jUpe7fVPcyL3BgoTAiwwFihttps://video.igem.org/lazy-static/thumbnails/8022291d-322f-40e7-896b-770a81d8e3fd.jpgAFCM-Egypt: home (2024) [English]home pagehttps://static.igem.org/peertube/streaming-playlists/hls/99157c46-6dab-4dda-85b4-b43345462bdf/5636b49e-6b32-4aa7-b8aa-2446bc4fed77-master.m3u8https://video.igem.org/videos/embed/jUpe7fVPcyL3BgoTAiwwFi330322024-09-27T23:54:56.379ZYES2024 TeamsNOhttps://video.igem.org/w/2j2rEWmHg72AWR3gBkPEQPhttps://video.igem.org/lazy-static/thumbnails/392f3604-c8e5-4e5b-8cdc-fab698cb82f5.jpgAFCM-Egypt: Receptor only (2024) [English]receptorhttps://static.igem.org/peertube/streaming-playlists/hls/0a9d6a62-1ae6-4e1d-abae-e3596155288f/24ab7018-2474-4092-9c13-167c7f811ca0-master.m3u8https://video.igem.org/videos/embed/2j2rEWmHg72AWR3gBkPEQP200372024-09-27T23:56:09.812ZYES2024 TeamsNOhttps://video.igem.org/w/aPpxzfaV2fWzWhVkwGgoXFhttps://video.igem.org/lazy-static/thumbnails/36e06602-ae81-4b37-9f9a-488e7f30c004.jpgAFCM-Egypt: Progress (2024) [English]project https://static.igem.org/peertube/streaming-playlists/hls/4f80b701-1833-4ad9-a382-89990261ec8d/b44fc663-2086-41af-98c4-2d93e618d7d3-master.m3u8https://video.igem.org/videos/embed/aPpxzfaV2fWzWhVkwGgoXF950102024-09-28T01:39:55.643ZprojectYES2024 TeamsNOhttps://video.igem.org/w/bUsMZ4Z9qtNWjFCtdq3RFyhttps://video.igem.org/lazy-static/thumbnails/30de03a3-9f8c-4b7e-8c6d-d496ee0f4d4d.jpgNNU-CHINA: 高通量动画 (2024) [Chinese]NNU-CHINA: 高通量动画 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/584e9305-b6fb-427a-bdf5-6b789f3953ea/268c8cce-03ab-46ad-a3c8-d1f41bc0dff4-master.m3u8https://video.igem.org/videos/embed/bUsMZ4Z9qtNWjFCtdq3RFy280332024-09-28T03:19:26.501ZYES2024 TeamsNOhttps://video.igem.org/w/mDtyfhjT1AQJ9AEhL5tJXfhttps://video.igem.org/lazy-static/thumbnails/3fe5c7b8-3039-4c3b-a8ab-d05ea8ee626d.jpgNNU-CHINA: 转座动画 (2024) [Chinese]NNU-CHINA: 转座动画 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/a7324650-13af-4a02-a195-b6deb283af64/970879b7-c0a2-4c6f-a47e-4629e76c1bc6-master.m3u8https://video.igem.org/videos/embed/mDtyfhjT1AQJ9AEhL5tJXf210302024-09-28T03:21:47.807ZYES2024 TeamsNOhttps://video.igem.org/w/ihb9CLmLP626dRFqwiGrjYhttps://video.igem.org/lazy-static/thumbnails/d14cf707-7ace-4f2f-b7b2-25cf62d9fda5.jpgNNU-CHINA: 绿意盎然的希望-情景剧 (2024) [Chinese]NNU-CHINA: 绿意盎然的希望-情景剧 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/8bed8312-3bbd-4c7c-b71f-33869baa4e60/d69627b6-1210-428a-bb60-655d9135f971-master.m3u8https://video.igem.org/videos/embed/ihb9CLmLP626dRFqwiGrjY1320112024-09-28T03:23:32.866ZYES2024 TeamsNOhttps://video.igem.org/w/8936pCKp78YfeJLKdgjcBNhttps://video.igem.org/lazy-static/thumbnails/dea163a4-f591-47fa-81ee-a6a0ef9651cf.jpgNNU-CHINA: The journey of sustainable development (2024) [Chinese]NNU-CHINA: The journey of sustainable development (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/39cf35f5-b0b9-4e95-b160-3d5cd92955a8/50716b04-deb4-494e-bdcf-38c0dcb302cb-master.m3u8https://video.igem.org/videos/embed/8936pCKp78YfeJLKdgjcBN186072024-09-28T04:37:31.086ZYES2024 TeamsNOhttps://video.igem.org/w/8sG1ie2GA83K8gPxP88fz7https://video.igem.org/lazy-static/thumbnails/987e85e4-3065-4840-b895-fdc20006175a.jpgWashington: UW x CityU iGEM Collaboration, Biosensors Educational Lesson (2024) [English]We collaborated with the CityU iGEM team from Hong Kong to introduce an emerging technology known as aptamer based biosensing. The adaptive nature of aptamers allows for a wider range of purposes than regular nucleic acid based biosensors. Read more on our wiki: https://2024.igem.wiki/washington/education. Video created and edited by Jaiden Poon.https://static.igem.org/peertube/streaming-playlists/hls/3c69f671-9fd6-45e3-8fff-0a72270ceaa0/91bbe714-3128-4e00-9a59-8d70e8ef12e2-master.m3u8https://video.igem.org/videos/embed/8sG1ie2GA83K8gPxP88fz7163201722024-09-28T06:14:34.931ZYES2024 TeamsNOhttps://video.igem.org/w/dusvq5nRYdNVpN6xkPbi3Shttps://video.igem.org/lazy-static/thumbnails/5c71bf5d-8151-47e2-9193-32d7aa3d865b.jpgBNU-China: 民族之声 (2024) [Chinese]BNU-China: 民族之声 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/6526d339-780d-4306-b5ad-e45c9b39e4aa/28c7b08b-4b1a-4d66-8fad-ee3f1b06fe48-master.m3u8https://video.igem.org/videos/embed/dusvq5nRYdNVpN6xkPbi3S241042024-09-28T08:08:48.606ZYES2024 TeamsNOhttps://video.igem.org/w/kKqXoUDXoTtYaSPJS1TMqvhttps://video.igem.org/lazy-static/thumbnails/ac693979-368a-445d-9fee-7551f1ff4e72.jpgTHISDL-United: Movies with cell trajectories marked[WT](2024)An example of cell trajectories marked WT movement, https://2024.igem.wiki/thisdl-united/https://static.igem.org/peertube/streaming-playlists/hls/9fedfeea-a1b7-413a-9100-cc036e6d3c19/51a34386-ca89-473c-a8e3-4bb5e3b1870e-master.m3u8https://video.igem.org/videos/embed/kKqXoUDXoTtYaSPJS1TMqv30082024-09-28T08:11:20.740ZMovementYES2024 TeamsNOhttps://video.igem.org/w/mtb5kjysf6XzYvXWRNp2GZhttps://video.igem.org/lazy-static/thumbnails/d29c3a12-540a-4dee-9431-3cd6a6639764.jpgTHISDL-United: Movies with cell trajectories marked [PilO Knockdown Mutant](2024)Movies with cell trajectories marked [PilO Knockdown Mutant],https://2024.igem.wiki/thisdl-united/https://static.igem.org/peertube/streaming-playlists/hls/a5c21051-e4dd-4c81-8e23-19dc8ffed885/858314cc-5543-47b6-8913-b9ff719d72e8-master.m3u8https://video.igem.org/videos/embed/mtb5kjysf6XzYvXWRNp2GZ300102024-09-28T08:12:00.798ZMovementYES2024 TeamsNOhttps://video.igem.org/w/2ZNsZaxUkuKZvXkJS6ZJUThttps://video.igem.org/lazy-static/thumbnails/b0ce1272-574f-449f-9bb9-3be60f49dce6.jpgTHISDL-United: WT Movement (2024)THISDL-United: WT Movement (2024)https://static.igem.org/peertube/streaming-playlists/hls/102b2b35-c7e8-4d10-ad78-088d32c2745b/113d75ed-7c83-4325-9a03-f7026aee458d-master.m3u8https://video.igem.org/videos/embed/2ZNsZaxUkuKZvXkJS6ZJUT30092024-09-28T08:09:43.586ZMovementYES2024 TeamsNOhttps://video.igem.org/w/eU2fTxYV3yfC8agvNFxkcihttps://video.igem.org/lazy-static/thumbnails/1b715bb9-ef9a-4f06-93c3-e114f3ed93dd.jpgTHISDL-United: PilO Knockdown Mutant (2024)THISDL-United: PilO Knockdown Mutant (2024)https://static.igem.org/peertube/streaming-playlists/hls/708a40ca-933b-4e93-a7a6-05ed495b5903/5402ed08-f45f-4253-a96d-b20f7fd2ff46-master.m3u8https://video.igem.org/videos/embed/eU2fTxYV3yfC8agvNFxkci30092024-09-28T08:10:27.284ZMovementYES2024 TeamsNOhttps://video.igem.org/w/3KWq9ZSueRPotQPvjPG66hhttps://video.igem.org/lazy-static/thumbnails/a6564b3b-8dd5-468c-8ee3-86db00378ef4.jpgECUST: home12 (2024) [English]https://2024.igem.wiki/ecust/https://static.igem.org/peertube/streaming-playlists/hls/1654cb76-089f-44f3-946c-e9a0fb7a3516/b86609ef-471d-4aa8-a865-b260951ae75e-master.m3u8https://video.igem.org/videos/embed/3KWq9ZSueRPotQPvjPG66h28022024-09-28T09:36:58.152ZYES2024 TeamsNOhttps://video.igem.org/w/1FLCTcScnwtAGHoYo4y57Qhttps://video.igem.org/lazy-static/thumbnails/a44dc188-2f3a-482a-b9d6-394728c75bba.jpgBielefeld-CeBiTec: AOAO cell culture (2024) [English]Apical-Out Airway Organoid (AOAO) culture: Visible apical-out airway organoids in action. These 3D structures, which mimic the airway epithelium, allow detailed study of cellular processes such as mucociliary transport and secretory activities, in which cilia and vesicles play a key role. https://static.igem.org/peertube/streaming-playlists/hls/058d83cf-ab09-476e-9ab2-30cd114fbc0c/604d8146-8882-4465-873f-506a9c793e8c-master.m3u8https://video.igem.org/videos/embed/1FLCTcScnwtAGHoYo4y57Q1602462024-09-28T10:20:44.808Zaoaocell cultureYES2024 TeamsNOhttps://video.igem.org/w/xwJ1eCqugzBnRLVX19nM3khttps://video.igem.org/lazy-static/thumbnails/8bdd72c2-5f74-40da-865b-7e1cc9189442.jpgBielefeld-CeBiTec: ALI cell culture (2024) [English]ALI cultures of hNECs: The active cilia beat frequency of differentiated human nasal epithelial cells (hNECs) in air-liquid interface (ALI) culture is visible. This ciliary movement is crucial for mucociliary transport, which contributes to the clearance of particles and pathogens in the respiratory tract. https://static.igem.org/peertube/streaming-playlists/hls/ff557f5a-94be-45e6-90ca-0affa14423e3/923b94f7-8315-4568-b360-484cab2d44af-master.m3u8https://video.igem.org/videos/embed/xwJ1eCqugzBnRLVX19nM3k2402662024-09-28T10:28:07.357ZALIcell cultureYES2024 TeamsNOhttps://video.igem.org/w/eBJiH7V3PEjjL39YfJa7zphttps://video.igem.org/lazy-static/thumbnails/c6feefae-72a0-4b00-8afc-3d8a56acae3f.jpgPatras-Med: FundraisingPage (2024) [English]Video for our wiki https://2024.igem.wiki/patras-med/ https://static.igem.org/peertube/streaming-playlists/hls/6e43e7f7-1319-4c37-982e-9d603e8c7931/5a30d0ef-3de1-42ed-9d58-f03b5318c3f8-master.m3u8https://video.igem.org/videos/embed/eBJiH7V3PEjjL39YfJa7zp8052024-09-28T11:06:59.291ZYES2024 TeamsNOhttps://video.igem.org/w/nzXZRpbVgKAUzhzmkUCKFZhttps://video.igem.org/lazy-static/thumbnails/d343a7fd-a8a4-40b8-89c1-8a5a0e30322c.jpgFDfzSH: ASMR (2024) [English]FDfzSH: ASMR (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/aecdf746-9007-4d5a-866d-1c1765fa3f5b/cace2921-e246-406b-9428-f220545d763a-master.m3u8https://video.igem.org/videos/embed/nzXZRpbVgKAUzhzmkUCKFZ89072024-09-28T11:30:15.115ZeducationasmrYES2024 TeamsNOhttps://video.igem.org/w/4Z3XC3AoXRrDQBvWMqSF7zhttps://video.igem.org/lazy-static/thumbnails/7d5e6e1b-0679-471b-814c-7cae72710706.jpgCityU-HongKong: HK-Macau Symposium (2024) [English]The HK-Macau iGEM Symposium is an annual event for iGEM teams from Hong Kong and Macau, focusing on collaboration, research progress sharing, and learning from one another. The symposium features presentations, poster showcases, and talks by industry experts and educators, offering valuable opportunities for teams to refine their projects before the iGEM Grand Jamboree. During the 2024 HK-Macau iGEM Symposium, our team was once again honoured and proud to present our project through presentation. More about it you can learn visiting our website: https://2024.igem.wiki/cityu-hongkong/collaborationshttps://static.igem.org/peertube/streaming-playlists/hls/2042a268-e003-482f-a6f1-3441bfbb5569/fedc094e-f4a1-44f1-8225-43af711c0e8d-master.m3u8https://video.igem.org/videos/embed/4Z3XC3AoXRrDQBvWMqSF7z120072024-09-28T12:03:22.167ZYES2024 TeamsNOhttps://video.igem.org/w/rytypLQerrM9eFDnkK8S2Bhttps://video.igem.org/lazy-static/thumbnails/6426cc23-816d-4ceb-af2f-ebb67fa594d3.jpgBNU-China: Tech Magic in a Silent World (2024) [English]In a world filled with sound, there is a group of people living in a silent realm. How do they perceive the beauty of life? How has technology become their magic wand, helping them overcome auditory barriers and reconnect with the world? From hearing aids to cochlear implants, and from real-time captions to communication software, technology is opening doors to a colorful world for the deaf community. Let's step into this silent world together, witness the wonderful encounter between technology and the deaf community, feel the power of technology in assisting the disabled, and share a better life! 🌟https://static.igem.org/peertube/streaming-playlists/hls/cefd4037-9535-4f09-8657-4ba8a5e38dcd/8e0b68b1-195e-49b3-bb32-d741360267e3-master.m3u8https://video.igem.org/videos/embed/rytypLQerrM9eFDnkK8S2B163062024-09-28T12:44:34.127ZPopular ScienceHearing ImpairmentInclusivityYES2024 TeamsNOhttps://video.igem.org/w/3NPYVG7iNpxELWmmot2CnYhttps://video.igem.org/lazy-static/thumbnails/7a3f4f24-8193-425c-882e-f7e10dd95f64.jpgBNU-China Step into the World of Autism A Journey of the Heart (2024) [English]Autism, a term that is both familiar and distant. We may have heard it in news reports or seen it in movies, but few truly understand it. In this video, I attempt to lead you into the world of autism, to feel their joys and sorrows, and to understand their uniqueness.https://static.igem.org/peertube/streaming-playlists/hls/16bc0f74-d2c1-432e-aeab-11ae8e7991a2/899831a2-d97e-400a-a6b6-1305442d5aa5-master.m3u8https://video.igem.org/videos/embed/3NPYVG7iNpxELWmmot2CnY1510112024-09-28T13:01:47.322ZPopular ScienceAutismInclusivityYES2024 TeamsNOhttps://video.igem.org/w/vRzwjueuchXyRhc1JbJkJghttps://video.igem.org/lazy-static/thumbnails/5e69622d-eed2-4438-b15d-79ee5ab2821a.jpgHK-Joint-School: One Step Beyond - Inclusive Community Workshop (2024) [Chinese]An inclusive community workshop “One Step Beyond - a public education and communication activity” was held by Hong Kong Academy of Gifted Education (HKAGE) students. Our team was invited to conduct workshops to the target groups. An interview was conducted after the programme and some of our team members shared their thoughts in the video.https://static.igem.org/peertube/streaming-playlists/hls/f1c51fff-5d2d-4422-a150-ec67995cd22f/f5ee4a64-0374-4f36-b054-961d9fe5303d-master.m3u8https://video.igem.org/videos/embed/vRzwjueuchXyRhc1JbJkJg11660122024-09-28T14:38:43.828ZYES2024 TeamsNOhttps://video.igem.org/w/qwdfookC6FwYMUdZDwEgjchttps://video.igem.org/lazy-static/thumbnails/f7e17c33-03d4-48c8-a5c5-663f4ec248b0.jpgSDU-Denmark: Interview L - clip 1 (2024) [Danish]Clip from interview with endometriosis patient.https://static.igem.org/peertube/streaming-playlists/hls/c6933066-25d7-4aea-b625-aa78d6a23b6b/5163327d-4336-4edf-b3a6-4d1eed229b5b-master.m3u8https://video.igem.org/videos/embed/qwdfookC6FwYMUdZDwEgjc12012024-09-28T14:52:16.490ZYES2024 TeamsNOhttps://video.igem.org/w/eutgic3iiiQgzytEfkHvq4https://video.igem.org/lazy-static/thumbnails/e4dcaf40-c946-4840-80c3-dff94cce39c8.jpgSDU-Denmark: Interview L - clip 2 (2024) [Danish]Clip from interview with endometriosis patient. https://static.igem.org/peertube/streaming-playlists/hls/6d406e15-323a-4639-8b89-8255911ee8df/5c8efb43-6348-44e7-8b55-1a14d3f4a1b9-master.m3u8https://video.igem.org/videos/embed/eutgic3iiiQgzytEfkHvq413002024-09-28T14:53:42.940ZYES2024 TeamsNOhttps://video.igem.org/w/esVNWQGD3HhQ6LEhgTZmLmhttps://video.igem.org/lazy-static/thumbnails/148de07d-70f9-41f0-ae5e-4e84098bd375.jpgSDU-Denmark: Interview L - clip 3 (2024) [Danish]Clip from interview with endometriosis patient.https://static.igem.org/peertube/streaming-playlists/hls/6d094d44-590a-4c9f-809c-df75dbc47354/b438b552-140f-4509-8a91-5fb152eb8e61-master.m3u8https://video.igem.org/videos/embed/esVNWQGD3HhQ6LEhgTZmLm42012024-09-28T14:56:22.508ZYES2024 TeamsNOhttps://video.igem.org/w/jwBJhk8LLHEKbaz2nvmrW4https://video.igem.org/lazy-static/thumbnails/d27d1bf1-af61-4458-b293-79eb1cc60057.jpgSDU-Denmark: Interview L - clip 4 (2024) [Danish]Clip from interview with endometriosis patient.https://static.igem.org/peertube/streaming-playlists/hls/960ad3e7-a91c-4c32-a5f2-5498736d7a93/be62b1bd-9127-4198-bbd0-de5f6cb518aa-master.m3u8https://video.igem.org/videos/embed/jwBJhk8LLHEKbaz2nvmrW4165012024-09-28T15:01:16.120ZYES2024 TeamsNOhttps://video.igem.org/w/9Vtri89gEEdo1UUQjCiUN7https://video.igem.org/lazy-static/thumbnails/1202988f-2155-4335-aadf-3599a00d37f4.jpgSDU-Denmark: Interview L - clip 5 (2024) [Danish]Clip from interview with endometriosis patient.https://static.igem.org/peertube/streaming-playlists/hls/48406fec-7fd6-4b96-bcff-a044e3f8c7ea/6e63923b-3e8e-4a93-ba31-04bea757ec83-master.m3u8https://video.igem.org/videos/embed/9Vtri89gEEdo1UUQjCiUN749012024-09-28T15:02:07.179ZYES2024 TeamsNOhttps://video.igem.org/w/34eHXW3t9A23A5eAGoAKpDhttps://video.igem.org/lazy-static/thumbnails/54b103f7-a222-4ceb-b455-b9f3fc3b8574.jpgBNU-China: National Voice (2024) [Chinese]Let's feel the changes that synthetic biology brings to each of us through the voices of ethnic minorities!https://static.igem.org/peertube/streaming-playlists/hls/10a5f74f-284f-4e44-a09a-50702adc7917/9de6967f-8f85-4feb-85e2-20700f698d08-master.m3u8https://video.igem.org/videos/embed/34eHXW3t9A23A5eAGoAKpD2410122024-09-28T15:40:51.804ZMinority nationalitySynthetic biologyInclusivityYES2024 TeamsNOhttps://video.igem.org/w/aLCcSVs1sAjyp24rjBWbLjhttps://video.igem.org/lazy-static/thumbnails/4ce6054b-44ae-4509-865b-cbf144d3d7c7.jpgPLKLFC: Banana DNA Extraction Demonstration (2024)A demonstration of an experiment included in the education syllabus for Secondary 1(Year 6) students Wiki: https://2024.igem.wiki/plklfc/homehttps://static.igem.org/peertube/streaming-playlists/hls/4f1d492b-3bf3-48a8-bbd4-cefc3381c312/8e9ea60e-929a-4a57-bab7-d8875baa8dee-master.m3u8https://video.igem.org/videos/embed/aLCcSVs1sAjyp24rjBWbLj159062024-09-28T16:11:28.536ZYES2024 TeamsNOhttps://video.igem.org/w/py2tcCUGqSeqre4Sh42cRShttps://video.igem.org/lazy-static/thumbnails/32a773f3-a7fb-4f3e-8aca-d327f93994d1.jpgMSP-Maastricht: Day in the Life of iGEM - Dry Lab (2024) [English]This video details a day in the life of one of our team members, Maria Sole, highlighting a typical dry lab day in iGEM. Credits: Wiki Link: https://2024.igem.wiki/msp-maastricht/ https://static.igem.org/peertube/streaming-playlists/hls/bebae525-d5d8-4610-b04d-5ca414030e30/042a26d2-6e07-4e1d-8ae7-e81612e4d42e-master.m3u8https://video.igem.org/videos/embed/py2tcCUGqSeqre4Sh42cRS78072024-09-28T18:19:21.591ZYES2024 TeamsNOhttps://video.igem.org/w/awbMmRz4esRPeqZ93iCZF5https://video.igem.org/lazy-static/thumbnails/dda446cc-b11c-4338-9c00-4536d8ce3682.jpgMSP-Maastricht: Day in the Life of iGEM - Wet Lab (2024) [English]This video details a day in the life of one of our team members, Devyani Ravi, highlighting a typical wet lab day in iGEM. Credits: Wiki Link: https://2024.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/4d1934aa-276d-41bd-9532-edabcb11434e/55fe3fd8-2ee4-4a4e-90c8-bb4b46cf9123-master.m3u8https://video.igem.org/videos/embed/awbMmRz4esRPeqZ93iCZF5119052024-09-28T18:34:53.354ZYES2024 TeamsNOhttps://video.igem.org/w/xneBmYhnS32CHLPWNiRUKMhttps://video.igem.org/lazy-static/thumbnails/f9296940-9c33-4e13-95c7-824e68e28788.jpgIISER-TVM: Unlocking Sandalwood's Secret (2024) [English]Discover the intricate processes that make this precious oil so valuable, from tree to treasure. Get a unique glimpse of the scene, exploring the sandalwood oil and efforts to safeguard sandalwood trees for future generations. Ever wondered why it is so expensive or pondered about how the smell of the greens reaches you in a smell bottle and lasts many years? Here is a journey into the known and unknown of sandalwood. Team iGEM IISER TVM presents to you a short documentary series commemorating the Indian Sandalwood. For part one of this documentary series, we unravel the secrets behind the current situation of the Indian Sandalwood in India as well it’s high market value. Caption credits: Kalyani, Sharadha and Ilaksha https://static.igem.org/peertube/streaming-playlists/hls/fe024e0d-8c43-42f3-84ef-398a4f1324b3/e9f28756-ea5a-4da5-aba0-fcc8f3b8b4e9-master.m3u8https://video.igem.org/videos/embed/xneBmYhnS32CHLPWNiRUKM720622024-09-28T18:31:31.740ZYES2024 TeamsNOhttps://video.igem.org/w/naZBd6ugwmCVqBLBcRTVNDhttps://video.igem.org/lazy-static/thumbnails/d7c88b47-b9ea-4f9d-a391-8fb3bc5e87fb.jpgThessaly: Instruction for constructing the hardware (2024)Instruction video for constructing the hardware for Thaelia. Every photo is a step in the process and is described in the wiki.https://static.igem.org/peertube/streaming-playlists/hls/ab751b7e-0700-4185-85a1-58c6749856ad/5038058d-ef2a-4d3d-8502-ad3e422d0ad7-master.m3u8https://video.igem.org/videos/embed/naZBd6ugwmCVqBLBcRTVND19012024-09-28T19:27:50.794ZYES2024 TeamsNOhttps://video.igem.org/w/6Sg2Gpuker2yTnbbQ8d3ejhttps://video.igem.org/lazy-static/thumbnails/4164f9c7-7ddc-4e0f-87fd-81eb6020e189.jpgMSP-Maastricht: iGEM Survival Kit Episode 4 - How to visualise DNA Sequences (2024) [English]In this video, Natronaut explains how to visualise DNA sequences using Addgene, GenBank, UniProt, and a reverse translation tool. Credits: Wiki Link: https://2024.igem.wiki/msp-maastricht/ https://static.igem.org/peertube/streaming-playlists/hls/2f8224d7-02ab-4e35-8873-c7b4e333631c/feff6f67-785e-48b3-9100-1e50b534c9c1-master.m3u8https://video.igem.org/videos/embed/6Sg2Gpuker2yTnbbQ8d3ej2990102024-09-28T20:14:15.824ZYES2024 TeamsNOhttps://video.igem.org/w/rvjL74G3XEw4cJ3GtVLNLchttps://video.igem.org/lazy-static/thumbnails/8e92e4df-4027-49c0-8fa4-cf49f80e115c.jpgMSP-Maastricht: iGEM Survival Kit Episode 1 - How to Prepare Liquid Cultures (2024) [English]In this video, Natronaut explains how to prepare liquid cultures of bacterial colonies. Credits: Wiki Link: https://2024.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/ce8c98ec-03eb-47b0-98ca-a3e6cb69b48b/b808cfe4-7390-4a19-83b5-04267688b00e-master.m3u8https://video.igem.org/videos/embed/rvjL74G3XEw4cJ3GtVLNLc79092024-09-28T21:04:37.642ZYES2024 TeamsNOhttps://video.igem.org/w/6MkRHGHbtmsgRnevxreLuYhttps://video.igem.org/lazy-static/thumbnails/6e60da9a-577e-4f75-9dd0-15ca73b308b4.jpgUToronto: Plasmid.AI Demo Day Pitch for iGEM Toronto (2024) [English]Here's our 2024 NEST Demo Day Pitch for Plasmid.AI. This pitch allowed us to make it to the "Go-To-Market" stage of University of Toronto's flagship incubator, unlocking non-dilutive funding, legal, accounting, and other business development resources to turn our iGEM project into a cutting-edge startup.https://static.igem.org/peertube/streaming-playlists/hls/2ed26680-8e29-432b-9eaf-dacccd57ba78/b053d37b-3371-4b9a-9558-fb0315d027ee-master.m3u8https://video.igem.org/videos/embed/6MkRHGHbtmsgRnevxreLuY41001742024-09-28T20:10:06.781Zigem 2024entrepreneurshipYES2024 TeamsNOhttps://video.igem.org/w/ihTWEpL95R29JzkvGjjMLRhttps://video.igem.org/lazy-static/thumbnails/bfceef7a-ae78-45a8-bdfa-dd03ed2cf509.jpgBUAPMX: Voices of insight (2024) [English]This video represents the first session of focus groups conducted as part of the development of our early detection project for pancreatic cancer. Students from various fields shared their opinions, knowledge, and emotions about pancreatic cancer, emphasizing the importance of awareness and early diagnosis. Through these conversations, we explored how to integrate scientific and social approaches to create innovative solutions that benefit the community. This exchange of ideas provided us with valuable insights to improve our project and inspired us to continue working toward a future where science and art come together to change realities. Credits: Jorge Jayer Melisa Arreola https://2024.igem.wiki/buapmx/ https://static.igem.org/peertube/streaming-playlists/hls/8c0744a9-a2a1-4787-9885-adb604a6162d/8150a639-6e7f-4f84-915e-910604fe1238-master.m3u8https://video.igem.org/videos/embed/ihTWEpL95R29JzkvGjjMLR25042024-09-28T20:58:43.038ZYES2024 TeamsNOhttps://video.igem.org/w/ngwUA35E8ToGeWdMxxqGBYhttps://video.igem.org/lazy-static/thumbnails/45d2f6af-9c21-470b-989c-9e854e865f39.jpgIISER-TVM: Education (2024) [English]This is the compilation of education of IISER TVM 2024https://static.igem.org/peertube/streaming-playlists/hls/ac3b1d85-b65e-40df-9d6f-21d56edefc16/cb132d95-0672-4ed9-8865-27a8889ff76d-master.m3u8https://video.igem.org/videos/embed/ngwUA35E8ToGeWdMxxqGBY1300362024-09-28T21:50:57.139ZYES2024 TeamsNOhttps://video.igem.org/w/jzvTP27K7FRi1PWPP31t3whttps://video.igem.org/lazy-static/thumbnails/89da44ff-2405-4656-9dfe-e209d491da83.jpgBUAPMX: Voices of insight (2024)This video represents the first session of focus groups conducted as part of the development of our early detection project for pancreatic cancer. Students from various fields shared their opinions, knowledge, and emotions about pancreatic cancer, emphasizing the importance of awareness and early diagnosis. Through these conversations, we explored how to integrate scientific and social approaches to create innovative solutions that benefit the community. This exchange of ideas provided us with valuable insights to improve our project and inspired us to continue working toward a future where science and art come together to change realities. https://2024.igem.wiki/buapmx/human-practiceshttps://static.igem.org/peertube/streaming-playlists/hls/96727672-6142-47cc-9318-48dee1729d9e/6d7bbc72-211d-42e6-9a6a-0de84c95ee6a-master.m3u8https://video.igem.org/videos/embed/jzvTP27K7FRi1PWPP31t3w25022024-09-28T21:55:58.003ZYES2024 TeamsNOhttps://video.igem.org/w/u3ihJcukh43kGFoPWYFHi3https://video.igem.org/lazy-static/thumbnails/e1fd2754-4f5f-4c93-b24c-8f2559fed11c.jpgQueens-Canada: Gromacs_Asyn+Cypd (2024)Video of Gromacs Simulationhttps://static.igem.org/peertube/streaming-playlists/hls/e312063d-ab73-421e-9449-37c4deb915b8/6573dc73-befe-4b36-8c35-01075e1cd788-master.m3u8https://video.igem.org/videos/embed/u3ihJcukh43kGFoPWYFHi3350172024-09-28T21:51:43.115ZYES2024 TeamsNOhttps://video.igem.org/w/urjC8XdEGGapmw5pHE1LaYhttps://video.igem.org/lazy-static/thumbnails/82c75cbc-2227-426f-b241-daef0cae7ba3.jpgQueens-Canada: Shortened Patient Comp (2024) [English]Short compilation of patient storieshttps://static.igem.org/peertube/streaming-playlists/hls/e648f41e-bff7-4818-9622-592f11842f32/d3746bb6-d220-498f-a53b-e04d8f7b87d1-master.m3u8https://video.igem.org/videos/embed/urjC8XdEGGapmw5pHE1LaY128062024-09-28T21:53:19.862ZYES2024 TeamsNOhttps://video.igem.org/w/gWYp79hZfD5UVeiMxstrVDhttps://video.igem.org/lazy-static/thumbnails/f3e6f3c9-ff86-4c98-bb7e-7c4280881202.jpgMadrid-UCM: ANIMATION (2024)Animation of our logo. https://2024.igem.wiki/madrid-ucm/https://static.igem.org/peertube/streaming-playlists/hls/8126000e-1896-42cb-bab6-8194c66c83a3/d399d096-b6dc-4d9d-8f1c-5df9c56d8c93-master.m3u8https://video.igem.org/videos/embed/gWYp79hZfD5UVeiMxstrVD1102202024-09-28T22:29:22.232ZYES2024 TeamsNOhttps://video.igem.org/w/3vMhumtFU73JHQKRBxU1QVhttps://video.igem.org/lazy-static/thumbnails/caeb3811-9551-436a-be11-80d92a5a227f.jpgAthens: Hardware Design for e-PHAESTUS | Voice by 11.ai (2024) [English]In this video, we showcase a project demonstration for industrial applications, featuring a brief animation of a hypothetical machine based on our research. This machine illustrates how glutathione nanoparticles could be produced from e-waste using enzymes immobilized in resin, offering an eco-friendly method for upcycling electronic waste. CAD Design & Animation: Stavros Karvelas Voiceover: ElevenLabs Music: Sunohttps://static.igem.org/peertube/streaming-playlists/hls/145ac10b-bfd0-4cdf-9b14-762d85fd2cc5/ea42110b-101b-412e-bba1-ecdf2671a6ce-master.m3u8https://video.igem.org/videos/embed/3vMhumtFU73JHQKRBxU1QV960822024-09-28T23:03:46.634ZYES2024 TeamsNOhttps://video.igem.org/w/pkE6ZcgGvtL2vVJrS8fHbshttps://video.igem.org/lazy-static/thumbnails/1c7b4afd-e3a6-4870-bcf6-a7ca9f230b23.jpgUMA-MALAGA: Brilliant minds (2024) [Spanish]They say that life is only lived once, it is easy to enjoy what we have without stopping to value it, but what about people who do not have all these privileges?https://static.igem.org/peertube/streaming-playlists/hls/bd00cd80-cb2d-4dcd-9db5-4abcd658b042/bc4a2f9c-09e1-46cd-ae60-baa2b7f240b1-master.m3u8https://video.igem.org/videos/embed/pkE6ZcgGvtL2vVJrS8fHbs1380382024-09-29T00:23:52.696ZtoleranceeducationscienceinclusionintellectualdisabilityYES2024 TeamsNOhttps://video.igem.org/w/kECrPTYPysPsHvpZDw6rqRhttps://video.igem.org/lazy-static/thumbnails/bc621015-a6a8-42e3-a870-64e90186d3d6.jpgMSP-Maastricht: Natronaut Chamber System 3D Model (2024)3D Rendering of Natronaut Chamber System containing GMOs, enabling flow through of water, and collection of SCPs. Credits: Wiki Link: https://2024.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/9f425ba5-af5b-47a4-9b9e-54e7f75e35ad/f5fe990e-52f2-4cc7-bb90-446b3ea71bb2-master.m3u8https://video.igem.org/videos/embed/kECrPTYPysPsHvpZDw6rqR160132024-09-29T01:06:23.458ZYES2024 TeamsNOhttps://video.igem.org/w/dhmiZdcQ26VFngYpbWFsS7https://video.igem.org/lazy-static/thumbnails/4c467ef5-5e1e-437a-9ebd-52211e014685.jpgEast-Coast-Biocrew: Chocolate without the cocoa (2024) [English]Made for internal use on the Wikihttps://static.igem.org/peertube/streaming-playlists/hls/637614ae-a65a-485b-812d-1d5a7499f77a/b14c0009-da2d-4bb4-82c9-f36a3470c001-master.m3u8https://video.igem.org/videos/embed/dhmiZdcQ26VFngYpbWFsS76082024-09-29T01:58:10.956Z2024no audiowikiYES2024 TeamsNOhttps://video.igem.org/w/nnPTgpjrNHorFoE2gEpDx1https://video.igem.org/lazy-static/thumbnails/da235ee5-b425-4e2c-b27a-0384f721ead9.jpgJIASHU-Shanghai: 1 (2024) [English]Lyrics and Song File Wiki: https://2024.igem.wiki/jiashu-shanghai/inclusivity https://static.igem.org/peertube/streaming-playlists/hls/ad1c0a5f-d491-4c3c-b5bd-8aa26c8b20d2/f09d4f10-10af-4219-9696-5afb63ef4bff-master.m3u8https://video.igem.org/videos/embed/nnPTgpjrNHorFoE2gEpDx1197022024-09-29T03:09:28.795ZYES2024 TeamsNOhttps://video.igem.org/w/58k847WJvrya5sV5UTUh9fhttps://video.igem.org/lazy-static/thumbnails/8c8b8452-390a-406b-9a4a-3a61f26ae109.jpgJIASHU-Shanghai: Inclusivity 2 (2024) [English]Lyrics and Song File Wiki: https://2024.igem.wiki/jiashu-shanghai/inclusivity https://static.igem.org/peertube/streaming-playlists/hls/216a8b8e-a1fc-429e-a390-781a1f5a1e6e/43bd15d3-4bfe-4c12-bb05-2c9d3b48e34d-master.m3u8https://video.igem.org/videos/embed/58k847WJvrya5sV5UTUh9f154012024-09-29T03:10:33.997ZYES2024 TeamsNOhttps://video.igem.org/w/3GcBmLvBcMMehKKZJ3bRXVhttps://video.igem.org/lazy-static/thumbnails/c0303398-6468-4b74-b4e8-1f4c01a7ae59.jpgJIASHU-Shanghai: Inclusivity (2024) [Chinese]Broadcast Wiki: 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https://2024.igem.wiki/jiashu-shanghai/inclusivity https://static.igem.org/peertube/streaming-playlists/hls/6f48fd28-40ab-487a-8955-0a96989ce313/086bb9d8-1745-4c2b-a1bc-f0d801f82f2a-master.m3u8https://video.igem.org/videos/embed/eK2Xkj7EhQ1P8FeYv3JDqx147032024-09-29T03:39:38.296ZYES2024 TeamsNOhttps://video.igem.org/w/ufv4zd45ejtBgokaiQFfMrhttps://video.igem.org/lazy-static/thumbnails/3b5f790d-fa1f-44c1-88a5-f5c2fc08a550.jpgJIASHU-SouthChina: Fruit Tea Shop Song (2024) [English]Fruit Tea Shop Songs Wiki: https://2024.igem.wiki/jiashu-southchina/entrepreneurship https://static.igem.org/peertube/streaming-playlists/hls/e4c63481-b857-4be3-9177-233ff8f040bb/eb9fe653-6d6e-4945-854f-66f793b31c19-master.m3u8https://video.igem.org/videos/embed/ufv4zd45ejtBgokaiQFfMr49032024-09-29T03:39:55.324ZYES2024 TeamsNOhttps://video.igem.org/w/6wi8UWvrpUYEi7ryHFjFwfhttps://video.igem.org/lazy-static/thumbnails/d29ace8a-9f3c-4c22-b34e-1af15edbda93.jpgGEC-Beijing: oil pollution (2024) [English]oil pollution Wiki: https://2024.igem.wiki/gec-beijing/resultshttps://static.igem.org/peertube/streaming-playlists/hls/2cb8912d-58d4-47c1-ac48-96e2be1558b6/3c0e6696-6d13-44fc-b017-e46d4caf01d1-master.m3u8https://video.igem.org/videos/embed/6wi8UWvrpUYEi7ryHFjFwf47082024-09-29T04:17:37.881ZYES2024 TeamsNOhttps://video.igem.org/w/kuDsPbsdZE4ktdNq1VJiZyhttps://video.igem.org/lazy-static/thumbnails/fe198845-34f0-41e5-a271-3d4ab8f9e694.jpgGEC-Beijing: Jeans polished white (2024) [English]Jeans polished white Wiki: https://2024.igem.wiki/gec-beijing/resultshttps://static.igem.org/peertube/streaming-playlists/hls/9ddd8c0c-524e-4028-9f10-1d1c90f8124e/fe4aa11c-42f2-42e5-b1c8-d3d5f7f81d7d-master.m3u8https://video.igem.org/videos/embed/kuDsPbsdZE4ktdNq1VJiZy640132024-09-29T04:21:46.768ZYES2024 TeamsNOhttps://video.igem.org/w/fEzLCziDbvGkTbJJKthmcghttps://video.igem.org/lazy-static/thumbnails/c728deda-3a79-4615-977d-d4f9c7596e3c.jpgWFL-HangzhouBay: Application of hyaluronidase (2024) [Chinese]WFL-HangzhouBay: 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TeamsNOhttps://video.igem.org/w/oEN3GpeymVJM5vCd7hcQtShttps://video.igem.org/lazy-static/thumbnails/39d1d361-dbbd-46f2-b682-cd40adfa4ea5.jpgSubCat-HS: Insights-English 2 (2024) [English]SubCat-HS: Insights-English 2 (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/b793b0e1-6092-4b65-9c31-d1ea390bed88/225ae482-b411-4886-964b-0afbda9e931e-master.m3u8https://video.igem.org/videos/embed/oEN3GpeymVJM5vCd7hcQtS242012024-09-29T13:11:35.789ZYES2024 TeamsNOhttps://video.igem.org/w/psBi4zu1ev1K16ZaxKPFR1https://video.igem.org/lazy-static/thumbnails/74bf676f-47b5-4118-81d4-18628a8a2dba.jpgSubCat-HS: Insight-Mandarin (2024) [Chinese]SubCat-HS: Insight-Mandarin (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/bdf9472b-3289-4e6c-bd34-fcfe46d478be/44fb83b4-5d7a-43a3-9106-a90651261390-master.m3u8https://video.igem.org/videos/embed/psBi4zu1ev1K16ZaxKPFR1234002024-09-29T13:12:35.298ZYES2024 TeamsNOhttps://video.igem.org/w/mgFU7pyRzJRm9mpKPBeZBGhttps://video.igem.org/lazy-static/thumbnails/6397b553-4a41-4224-b320-0c9d361bcb3e.jpgSubCat-HS: Insights-Mandarin 2 (2024) [Chinese]SubCat-HS: Insights-Mandarin 2 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/a427849e-ba45-4a26-ac93-ba42951744f2/846e7247-c175-484b-ac55-b74f39d50810-master.m3u8https://video.igem.org/videos/embed/mgFU7pyRzJRm9mpKPBeZBG181022024-09-29T13:13:20.029ZYES2024 TeamsNOhttps://video.igem.org/w/1bTDWWDHZEcjnKbHDgDGSChttps://video.igem.org/lazy-static/thumbnails/8407d16d-b9a7-45a0-b335-bd1351f42f72.jpgSubCat-HS: Insights-Mandarin and Cantonese (2024) [English][Chinese]SubCat-HS: Insights-Mandarin and Cantonese (2024) [English][Chinese]https://static.igem.org/peertube/streaming-playlists/hls/01854551-3ddf-4c89-a24d-cc52a3e6fb30/7b9ebb20-b268-4fd5-9da1-aef649428e86-master.m3u8https://video.igem.org/videos/embed/1bTDWWDHZEcjnKbHDgDGSC181002024-09-29T13:09:34.212ZYES2024 TeamsNOhttps://video.igem.org/w/jRwMB9q2CxsPPgbTcH6udHhttps://video.igem.org/lazy-static/thumbnails/a3b86845-bf26-4c5a-b4ed-fbcb74af4482.jpgUAlberta: Micro Groove (2024)"Microgroove" is an infectious, feel-good track that pulses with rhythm and energy. It captures a smooth, flowing vibe that pulls listeners in, layering vibrant beats with a seamless blend of retro and modern sounds. The track has an easygoing yet dynamic pace, making it perfect for both a chill evening or an energetic gathering. Its rhythm weaves in and out with precision, creating an immersive, hypnotic experience that keeps listeners hooked from start to finish.https://static.igem.org/peertube/streaming-playlists/hls/98aee9d1-1dfe-440c-a3c5-5aaa373c53c9/6dc19c4f-9af1-49d0-9a3f-2a103e1d68bd-master.m3u8https://video.igem.org/videos/embed/jRwMB9q2CxsPPgbTcH6udH1910102024-09-29T10:29:25.914ZYES2024 TeamsNOhttps://video.igem.org/w/rs3Eexf1jhZHPw3LXp6HUAhttps://video.igem.org/lazy-static/thumbnails/147f4072-b9e1-4c91-bf54-1c847f614288.jpgUAlberta: Synthetic Silk (2024)"Synthetic Silk" is a sleek, atmospheric track that glides effortlessly, enveloping the listener in a smooth, dream-like soundscape. It’s both calming and hypnotic, with an underlying pulse that gives it a subtle momentum. The song feels like floating through a futuristic world, with delicate layers that shimmer and evolve throughout. Its gentle pace creates a sense of tranquility, while its intricate rhythms add a touch of sophistication, making it both relaxing and captivating, like silk slipping through your fingers.https://static.igem.org/peertube/streaming-playlists/hls/ce17717c-a3a0-4e73-92af-c0cffc49b346/eda1805d-3ba5-4910-8eec-0c14f141e0fd-master.m3u8https://video.igem.org/videos/embed/rs3Eexf1jhZHPw3LXp6HUA272072024-09-29T10:35:59.199ZYES2024 TeamsNOhttps://video.igem.org/w/7xRrYXwPoGWRMX9VyVWY2Phttps://video.igem.org/lazy-static/thumbnails/92fa065b-0906-4091-b4dd-f313b16317a3.jpgUAlberta: Lab Work (2024)"Lab Work" crackles with energy, a sharp and crispy track that snaps into action with a tight, fast-paced rhythm. Its crisp beats and sudden shifts give it an edge, like sparks of inspiration firing in a busy lab. Each section moves with precision, creating a sense of urgency and discovery. The track stays lean and focused, with an almost mechanical feel, reflecting the calculated intensity of experimentation. It’s a perfect backdrop for moments of high concentration, where every detail counts, and the next step could lead to a breakthrough.https://static.igem.org/peertube/streaming-playlists/hls/35095cba-8f68-4a94-8cec-8b16de8a4949/fb7da0dc-d277-43ca-9f46-858e998c56f2-master.m3u8https://video.igem.org/videos/embed/7xRrYXwPoGWRMX9VyVWY2P244042024-09-29T11:33:04.979ZYES2024 TeamsNOhttps://video.igem.org/w/ezo6bvLA9auuKoxkjMbbZbhttps://video.igem.org/lazy-static/thumbnails/ab539de9-347e-4019-944c-1a0754e41b10.jpgUAlberta: Change (2024)"Change" is an electrifying, high-speed rush that never slows down. From the first second, it launches into a whirlwind of rapid beats and unpredictable shifts, mirroring the chaotic energy of transformation. The track feels alive, constantly evolving, with no time to pause—pushing forward at a relentless pace. Its intensity creates an exhilarating sense of motion, like being caught in the middle of a storm where everything is shifting in real-time. "Change" is all about momentum, leaving listeners breathless as it accelerates toward an unpredictable finish.https://static.igem.org/peertube/streaming-playlists/hls/6deff5c4-299e-4fde-a264-f7d5e204b73c/0c9cccb1-7094-40ee-aa31-9b7d301052b5-master.m3u8https://video.igem.org/videos/embed/ezo6bvLA9auuKoxkjMbbZb303062024-09-29T11:33:35.349ZYES2024 TeamsNOhttps://video.igem.org/w/ia69gj2D1VrSA2bF2Vof2Dhttps://video.igem.org/lazy-static/thumbnails/f84c134f-07e8-4e89-8ccb-ec1943cc27fe.jpgShanghai-city: Educational Animation (2024) [Chinese]Shanghai-city: Educational Animation (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/8af03866-b550-4fbc-ad5e-70589aa79377/4eb1b1d3-a632-473d-b29a-d20a863c5c33-master.m3u8https://video.igem.org/videos/embed/ia69gj2D1VrSA2bF2Vof2D198032024-09-29T09:51:23.795ZYES2024 TeamsNOhttps://video.igem.org/w/poxp9QEPWA3Qe8TNnsxB2hhttps://video.igem.org/lazy-static/thumbnails/8e146f24-5113-4dc7-bc00-dbeb4c828687.jpgMSP-Maastricht: iGEM Survival Kit Episode 2 - How to Perform Transformation on Vibrio Natriegen's...In this video, Natronaut teaches you how to perform transformation, using our chassis organism Vibrio Natriegen's. Credits: Wiki Link: https://2024.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/bd67e70d-9dc6-48a7-9ac0-48db72aa30ce/76c23255-66c7-4d24-9f05-f643593ebb56-master.m3u8https://video.igem.org/videos/embed/poxp9QEPWA3Qe8TNnsxB2h112002024-09-29T20:37:46.726ZYES2024 TeamsNOhttps://video.igem.org/w/6TUWx1cZCmYW5B6UGVcg1ahttps://video.igem.org/lazy-static/thumbnails/955331d6-b705-4f38-b15c-a9dffa1ff5d2.jpgMSP-Maastricht: iGEM Survival Kit Episode 3 - Plasmid Extraction via Miniprep (2024) [English]In this video, Natronaut teaches you how to perform plasmid extraction via miniprep. Credits: Wiki Link: https://2024.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/2fbd404b-ef63-4372-8aa2-229245fd96ad/a4e7b948-9bd8-486e-9215-3f7341ea38ec-master.m3u8https://video.igem.org/videos/embed/6TUWx1cZCmYW5B6UGVcg1a110032024-09-29T22:04:18.920ZYES2024 TeamsNOhttps://video.igem.org/w/uNkiATSydxnb6qHvecyqexhttps://video.igem.org/lazy-static/thumbnails/fe076f48-bbe2-45ce-be76-f2c5fc2ae66e.jpgHKUST: Creative Drawing Workshop (2024) [English]Video for YSIP Creative Drawing Workshophttps://static.igem.org/peertube/streaming-playlists/hls/e937fdf9-965d-4c2c-b3fc-ba0581e5ea01/0cfe3edd-508c-4a96-a05a-04d6776ca617-master.m3u8https://video.igem.org/videos/embed/uNkiATSydxnb6qHvecyqex8022024-09-29T11:34:15.613ZYES2024 TeamsNOhttps://video.igem.org/w/utiNmSQoZq5X3H47d44mpyhttps://video.igem.org/lazy-static/thumbnails/eb208293-034d-4b2b-bc35-13d8665b454d.jpgUAlberta: Micropipetting Tutorial (2024) [English]In this micropipetting tutorial video, you'll learn the essential techniques for accurate and precise liquid handling in a laboratory setting. The video covers step-by-step instructions on how to properly use a micropipette, including setting the volume, loading and dispensing liquids, and avoiding common errors like air bubbles and contamination. Ideal for beginners or those needing a refresher, this tutorial ensures you develop the skills needed for efficient and reliable pipetting in any scientific experiment or research environment.https://static.igem.org/peertube/streaming-playlists/hls/e68feef8-cb21-40fd-b7e5-a54bba08a34e/d23250b8-2288-4e6f-81f7-2ab3df62df25-master.m3u8https://video.igem.org/videos/embed/utiNmSQoZq5X3H47d44mpy240042024-09-29T14:18:54.708ZYES2024 TeamsNOhttps://video.igem.org/w/tcGbjnbH1JaHSMNhKSCM9Chttps://video.igem.org/lazy-static/thumbnails/7998f0d8-f8b0-48f8-acb7-855a20562ae3.jpgUAlberta: Aseptic Techniques (2024) [English]In this aseptic techniques tutorial video, you'll be guided through the fundamental practices required to maintain sterility in the lab and prevent contamination. The video explains key procedures such as sterilizing equipment, working within a sterile field, proper handwashing. You'll also learn best practices for using tools like Bunsen burners and laminar flow hoods to ensure a contaminant-free environment. Perfect for those working in microbiology, cell culture, or clinical labs, this tutorial provides the essential knowledge to maintain aseptic conditions in any experiment.https://static.igem.org/peertube/streaming-playlists/hls/dc48af8f-86bc-4ba9-a1e4-a8affa8d01e8/a9973a2a-46dd-45a3-ab68-392d5a83fe14-master.m3u8https://video.igem.org/videos/embed/tcGbjnbH1JaHSMNhKSCM9C126042024-09-29T20:40:29.468ZYES2024 TeamsNOhttps://video.igem.org/w/szQor4fUEa1U1W3x6piycFhttps://video.igem.org/lazy-static/thumbnails/875b09c1-704e-45bd-b616-82e1a379d659.jpgJIASHU-Shanghai: Human Practices Song (2024) [English]Wiki: https://2024.igem.wiki/jiashu-shanghai/human-practiceshttps://static.igem.org/peertube/streaming-playlists/hls/d746f80e-5e52-4074-9c7a-e901c0fd691d/b2ec4275-c88f-4dfa-84f1-b8ec21cf9a25-master.m3u8https://video.igem.org/videos/embed/szQor4fUEa1U1W3x6piycF242052024-09-29T22:05:19.977ZYES2024 TeamsNOhttps://video.igem.org/w/tu9Lh114xoapi1TZoqJPWthttps://video.igem.org/lazy-static/thumbnails/9aa18f75-4229-45f0-8fae-d3b42c398211.jpgBNU-China: Cytokine Storm introduction (2024) [English]A game introduction to Cytokine Storm, which is a popular science mini game themed on the infectious diseases. Welcome to try it!https://static.igem.org/peertube/streaming-playlists/hls/de94f852-17a1-44c8-aac9-64e9675f8f83/54c2c5ac-54fa-452b-9c08-670a946b6e24-master.m3u8https://video.igem.org/videos/embed/tu9Lh114xoapi1TZoqJPWt1240112024-09-29T11:38:56.938ZInclusivityPopular scienceinfectious diseasesGame introductionYES2024 TeamsNOhttps://video.igem.org/w/mabUXuj6WP7mJWFtRDtMwNhttps://video.igem.org/lazy-static/thumbnails/92f546d5-4d6e-45a6-bd08-76c10749918e.jpgBZK-SH: online education course (2024) [Chinese]BZK-SH: online education course (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/a33f3149-e1b1-410c-add8-0c54a818abb6/d9758357-adfe-4154-94a3-d3c367492369-master.m3u8https://video.igem.org/videos/embed/mabUXuj6WP7mJWFtRDtMwN511002024-09-29T10:15:24.150ZYES2024 TeamsNOhttps://video.igem.org/w/47R6PYo83L9oJkhf39Kgtbhttps://video.igem.org/lazy-static/thumbnails/99170884-d7d4-49ec-a900-e69f0d45acbc.jpgCityU-HongKong: 11th Conference of China iGEMer Community (CCiC) Vlog (2024) [English]This is the vlog from the 11th Conference of China iGEMer Community (CCiC), an annual gathering of iGEM teams and synthetic biology enthusiasts across China. Hosted in Suzhou, this year's event, themed "SynBio Nexus," featured project presentations, expert lectures, and collaborative discussions focused on the latest innovations in synthetic biology. As one of the largest academic conferences for university students in China, CCiC provides a valuable platform for exchanging ideas, receiving feedback, and exploring the future impact of synthetic biology on global challenges and emerging industries. https://2024.igem.wiki/cityu-hongkong/ https://static.igem.org/peertube/streaming-playlists/hls/19402349-5b62-4b00-ad40-6a4f094f723c/d5de7201-05fa-42e4-9ec4-9515ba5943e8-master.m3u8https://video.igem.org/videos/embed/47R6PYo83L9oJkhf39Kgtb183032024-09-29T13:01:36.090ZYES2024 TeamsNOhttps://video.igem.org/w/9fxyjsaBPsNjrTTJ8No8cihttps://video.igem.org/lazy-static/thumbnails/5abb8aef-2e82-4937-923c-15549eed8abf.jpgPatras-Med: homepage_video (2024) [English]Home Page Video - Our video is a small presentation of our Lethe Projecthttps://static.igem.org/peertube/streaming-playlists/hls/42d0f84a-1e65-4bbb-b4f7-8ba4f5dfa13b/e6a7a8c3-52a3-416f-8533-496ae8823958-master.m3u8https://video.igem.org/videos/embed/9fxyjsaBPsNjrTTJ8No8ci30012024-09-29T10:31:31.215ZYES2024 TeamsNOhttps://video.igem.org/w/tGBSXFMGESZKU9BT5ZatN1https://video.igem.org/lazy-static/thumbnails/5311dcff-7235-4cfd-9153-4e71a2cd22f8.jpgOUC-China: Exp. I - Blank control group (2024) [English]hardware experiment 1https://static.igem.org/peertube/streaming-playlists/hls/e0529b09-05b1-4176-8107-e0094c6929f0/54143049-1d41-480d-a271-455fa15c8f07-master.m3u8https://video.igem.org/videos/embed/tGBSXFMGESZKU9BT5ZatN1600122024-09-29T10:16:48.065ZYES2024 TeamsNOhttps://video.igem.org/w/t1nuLQPavUr7JwNAhiydaghttps://video.igem.org/lazy-static/thumbnails/cf986a6b-07dc-477d-969b-a61100fa7355.jpgOUC-China: Exp. II - control group (2024) [English]hardware experiment 2https://static.igem.org/peertube/streaming-playlists/hls/dab3fdc2-e1dc-4a22-8d6e-97e1d84e3659/a0933a21-5007-48f7-bf11-e8d618836b04-master.m3u8https://video.igem.org/videos/embed/t1nuLQPavUr7JwNAhiydag60092024-09-29T10:33:00.865ZYES2024 TeamsNOhttps://video.igem.org/w/9SDvuYSZKsjTb1u2dUgJAohttps://video.igem.org/lazy-static/thumbnails/ef4038d3-f927-4838-b3a9-29b2b7b16cf6.jpgBioplus-China: Synthesis Biological Future (2024) [Chinese]we create music for our education, this video is mv for our music. Here are the lyrics： Synthetic cells are dancing, Future technology is shining, Dreams written in DNA, The glow of evolution is visible. [Verse 2] Secrets in the laboratory, Creating new life paths, Formulas that change destiny, Human wisdom is limitless. [Chorus] The era of synthetic biology, The future is right before us, Technology leads us, To a whole new world. [Verse 3] Every program shines, Every cell sings, Science and art combined, Changing this starry sky. [Bridge] Chasing dreams, Innovation is endless, The future is in our hands, The miracles of life are boundless. [Chorus] In the era of synthetic biology, The future is right before us, Technology leads us, To a whole new world. this is our wiki link: https://2024.igem.wiki/bioplus-china/https://static.igem.org/peertube/streaming-playlists/hls/47db69cd-0ea1-48b2-aeec-c6127fd74f0a/fd38011d-77e6-4c20-ae1f-6e42cd4580fc-master.m3u8https://video.igem.org/videos/embed/9SDvuYSZKsjTb1u2dUgJAo1335382024-09-29T10:39:12.081ZYES2024 TeamsNOhttps://video.igem.org/w/xpqJf2W5vcbTfjX5K4xzS5https://video.igem.org/lazy-static/thumbnails/d75cd361-56fc-42a1-a226-29ac17131386.jpgHKPOLYU: nanobody bind (2024)HKPOLYU: nanobody bind (2024)https://static.igem.org/peertube/streaming-playlists/hls/fe50a500-0aa5-4902-9f02-1ba1bbfc5564/0991c9d4-331e-46fd-98d7-19ff9bd27a77-master.m3u8https://video.igem.org/videos/embed/xpqJf2W5vcbTfjX5K4xzS510012024-09-29T20:40:50.649ZYES2024 TeamsNOhttps://video.igem.org/w/8bgABuQB4trUMLCx7QebL8https://video.igem.org/lazy-static/thumbnails/0ff6bf9e-da57-41d1-867d-8ef28c48d3ca.jpgOUC-China: Exp. III - experimental group (2024) [English]hardware experiment 3https://static.igem.org/peertube/streaming-playlists/hls/3a1f0529-7a73-4d1c-bcb2-d1e0788337ef/8f4a0f13-0c7d-4750-bceb-867c1f8d2136-master.m3u8https://video.igem.org/videos/embed/8bgABuQB4trUMLCx7QebL860072024-09-29T10:48:47.696ZYES2024 TeamsNOhttps://video.igem.org/w/xtuo51V8nxafs8oTPLhstEhttps://video.igem.org/lazy-static/thumbnails/3865929a-e428-4f93-bec7-2312ca5ca023.jpgOUC-China: Exp. IV - optimisationl group (2024) [English]hardware experiment 4https://static.igem.org/peertube/streaming-playlists/hls/fee1decf-b326-4c3b-b639-bd7bb985564c/eacd833b-7bf5-4ffd-8d6d-7ec2e97139e0-master.m3u8https://video.igem.org/videos/embed/xtuo51V8nxafs8oTPLhstE60052024-09-29T13:03:18.350ZYES2024 TeamsNOhttps://video.igem.org/w/uDJW7zsB89mZi4nB79664Phttps://video.igem.org/lazy-static/thumbnails/35cd5e26-e7fd-429d-84f9-bd35f71a7c0b.jpgGreatBay-SCIE: team-member introduction (2024) [English]This is the introduction video of our teammates this year! Learn more through this link:https://2024.igem.wiki/greatbay-scie/teamhttps://static.igem.org/peertube/streaming-playlists/hls/e804dc40-da94-43ba-9aca-d13915a447d9/afea8d46-129c-4387-ba54-b3f38e5f84f4-master.m3u8https://video.igem.org/videos/embed/uDJW7zsB89mZi4nB79664P13801512024-09-29T14:19:22.872ZYES2024 TeamsNOhttps://video.igem.org/w/hXG6vH6ycHUwjBNmokASL1https://video.igem.org/lazy-static/thumbnails/489ec178-16fb-430a-9726-6317a4fd9037.jpgJU-Krakow: PrymChip Assembly (2024)This video presents the assembly process of PrymChip (https://2024.igem.wiki/ju-krakow/hardware), a hardware device developed by our team, JU-Kraków 2024 (https://2024.igem.wiki/ju-krakow/index.html).https://static.igem.org/peertube/streaming-playlists/hls/8958d5d9-d442-430a-bde6-4038f2a9c740/d16d7d36-9477-40f0-b8c7-53d0f7bc5c0e-master.m3u8https://video.igem.org/videos/embed/hXG6vH6ycHUwjBNmokASL1810482024-09-29T11:26:00.975ZhardwareYES2024 TeamsNOhttps://video.igem.org/w/gVhj1t2TUDV25CknqUkZT8https://video.igem.org/lazy-static/thumbnails/a3bcc597-6964-4211-90df-786d7d27679d.jpgIOANNINA: Project Implementation Page text to speech (2024) [English]This is a text to speech audio file for the Project Implementation Page of our wiki (https://2024.igem.wiki/ioannina/implementation) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/80e98d28-b460-4d64-8082-68a96f5b0a91/b2debbbe-12b9-4669-9e9e-420a7c438083-master.m3u8https://video.igem.org/videos/embed/gVhj1t2TUDV25CknqUkZT81658022024-09-29T23:29:09.689ZYES2024 TeamsNOhttps://video.igem.org/w/1yaJHJ9zL59FxZ5LJQHXWuhttps://video.igem.org/lazy-static/thumbnails/d7e61636-a97e-4c9d-b097-6a52e371646c.jpgIOANNINA: Integrated Human Practices Page text to speech (2024) [English]This is a text to speech audio file for the Integrated Human Practices Page of our wiki (https://2024.igem.wiki/ioannina/integrated) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/047dcd0e-252b-470d-958f-e526073f46bc/63705678-826b-4a59-ad23-7996c7c44596-master.m3u8https://video.igem.org/videos/embed/1yaJHJ9zL59FxZ5LJQHXWu2139022024-09-29T23:37:40.999ZYES2024 TeamsNOhttps://video.igem.org/w/81qJmQZRBRbAo7DRQQV7yQhttps://video.igem.org/lazy-static/thumbnails/ea3645a6-9f99-4597-820c-ee344299e9a2.jpgIOANNINA: Project Description Page text to speech (2024) [English]This is a text to speech audio file for the Project Description Page of our wiki (https://2024.igem.wiki/ioannina/description) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/38bf3613-2b0a-4d0b-88bc-b3aac4cfe250/a52f9fe0-a22f-4ff5-9412-1b5f559463a9-master.m3u8https://video.igem.org/videos/embed/81qJmQZRBRbAo7DRQQV7yQ1079092024-09-29T23:41:59.963ZYES2024 TeamsNOhttps://video.igem.org/w/vPFWjgB8dzqwLHpo9bRqf7https://video.igem.org/lazy-static/thumbnails/65cf2604-cfa9-44de-ac93-4d8163cd483b.jpgTHISDL-United: Electrophoresis (2024) [Chinese]Electrophoresishttps://static.igem.org/peertube/streaming-playlists/hls/f181970d-929a-429b-9b08-663f9fa6b3da/45a40891-b53f-4619-86dc-36571e77e59e-master.m3u8https://video.igem.org/videos/embed/vPFWjgB8dzqwLHpo9bRqf788002024-09-29T15:48:45.806ZYES2024 TeamsNOhttps://video.igem.org/w/vc8FHVYr3RwxZuQWHGNBjAhttps://video.igem.org/lazy-static/thumbnails/e18bbce7-a41d-4b4e-8d87-c520ce047cd2.jpgTHISDL-United: Transformation (2024) [Chinese]Transformationhttps://static.igem.org/peertube/streaming-playlists/hls/ec66f047-0dec-4c71-9793-2e7a31064ff2/f9e53b71-aa5f-473f-beb2-a67816c21a54-master.m3u8https://video.igem.org/videos/embed/vc8FHVYr3RwxZuQWHGNBjA18002024-09-29T12:07:36.431ZYES2024 TeamsNOhttps://video.igem.org/w/86hnuzNZfhfftYnJae7grYhttps://video.igem.org/lazy-static/thumbnails/71db5f18-9ac3-46f3-8fbf-1538cf816674.jpgTHISDL-United: Discussion (2024) [English]Discussion about research plan between team membershttps://static.igem.org/peertube/streaming-playlists/hls/396cc737-6cff-43e0-b160-86907ba7d55e/561a4798-2419-4f0a-9fdf-a24700aac8f8-master.m3u8https://video.igem.org/videos/embed/86hnuzNZfhfftYnJae7grY21022024-09-29T12:09:03.941ZYES2024 TeamsNOhttps://video.igem.org/w/rfA8mLd3bZskXgtuwhkP2Yhttps://video.igem.org/lazy-static/thumbnails/f585e08d-afed-463c-835b-1bc06bbe994a.jpgTHISDL-United: Work in clean bench (2024) [English]Smear cyanobacteria cultured in liquid medium onto solid mediumhttps://static.igem.org/peertube/streaming-playlists/hls/cc7de923-fd59-4cc3-b063-936255e27046/6c426125-2424-4426-bcc2-b6b91a175833-master.m3u8https://video.igem.org/videos/embed/rfA8mLd3bZskXgtuwhkP2Y92002024-09-29T13:08:49.881ZYES2024 TeamsNOhttps://video.igem.org/w/bHDGGkBySHPSXHfZ2BNkU6https://video.igem.org/lazy-static/thumbnails/d59d02df-f874-423b-b07a-bf570271d1e0.jpgTHISDL-United: Optical microscopy (2024) [Chinese]Use optical microscope to monitor the mobility of cyanobacteriahttps://static.igem.org/peertube/streaming-playlists/hls/56cc1d9a-4099-4b06-9235-62abafc25db9/24657b8a-7166-4ede-b85d-39a9b5d7da4b-master.m3u8https://video.igem.org/videos/embed/bHDGGkBySHPSXHfZ2BNkU635012024-09-29T15:50:45.515ZYES2024 TeamsNOhttps://video.igem.org/w/jT36jsE1KcCtABJ37omDrBhttps://video.igem.org/lazy-static/thumbnails/7736604d-c62d-47b1-b16c-2327482b8968.jpgTHISDL-United: Water treatment plant (2024) [Chinese]Visit water treatment planthttps://static.igem.org/peertube/streaming-playlists/hls/98e4b79a-903c-47ca-ba5e-9c5de58090c1/93a7a739-c915-4fb9-9c74-a292c5f898e7-master.m3u8https://video.igem.org/videos/embed/jT36jsE1KcCtABJ37omDrB10002024-09-29T20:41:13.216ZYES2024 TeamsNOhttps://video.igem.org/w/mzeoY7nfztvzFULjAKfQgvhttps://video.igem.org/lazy-static/thumbnails/bf494567-5f78-4eab-ad2f-821140d9a0ef.jpgBioplus-China: Synthesis biological future (2024) [Chinese]we create music for our education, this video is mv for our music. Here are the lyrics： Synthetic cells are dancing, Future technology is shining, Dreams written in DNA, The glow of evolution is visible. [Verse 2] Secrets in the laboratory, Creating new life paths, Formulas that change destiny, Human wisdom is limitless. [Chorus] The era of synthetic biology, The future is right before us, Technology leads us, To a whole new world. [Verse 3] Every program shines, Every cell sings, Science and art combined, Changing this starry sky. [Bridge] Chasing dreams, Innovation is endless, The future is in our hands, The miracles of life are boundless. [Chorus] In the era of synthetic biology, The future is right before us, Technology leads us, To a whole new world. https://2024.igem.wiki/bioplus-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/a69a92bc-0b6a-498c-91a0-1e8ed6639de3/a29267b6-a339-4b50-98cd-5670691df469-master.m3u8https://video.igem.org/videos/embed/mzeoY7nfztvzFULjAKfQgv133012024-09-29T12:52:44.982ZYES2024 TeamsNOhttps://video.igem.org/w/fDZtoMP2qT9aZHF5wxaYzVhttps://video.igem.org/lazy-static/thumbnails/e0d91e6c-1774-4bf8-af5d-1a7a290ba969.jpgNAU-CHINA: TRn4-mfp5 adhesive ability test (2024) [English]This video demonstrates the adhesive ability test of the TRn4-Mfp5 fusion protein, designed and produced by the NAU-CHINA team.https://static.igem.org/peertube/streaming-playlists/hls/76ade119-0738-4ded-9b7e-1af2e0326a27/3c8a0ea2-daf8-4b38-8277-b5b77f4c40b0-master.m3u8https://video.igem.org/videos/embed/fDZtoMP2qT9aZHF5wxaYzV240362024-09-29T12:58:54.090ZYES2024 TeamsNOhttps://video.igem.org/w/4bifx2dGq4yVMFxGNbmarMhttps://video.igem.org/lazy-static/thumbnails/86ad0e1d-1fdf-4bfd-ab91-d0bc8e612284.jpgMacquarieUni: All G Foods Interview (2024) [English]Entrepreneurship All G Foods Interview https://static.igem.org/peertube/streaming-playlists/hls/19bb7c17-f2ca-4f35-8c42-211a5f1e291b/58dff068-2593-4348-9b27-8ff1b26d17e9-master.m3u8https://video.igem.org/videos/embed/4bifx2dGq4yVMFxGNbmarM641092024-09-29T13:49:38.205ZYES2024 TeamsNOhttps://video.igem.org/w/po8wruEFbAW9SP24qXtr41https://video.igem.org/lazy-static/thumbnails/0e325bd4-f155-444d-9dea-5c6d5302c651.jpgNU-Kazakhstan: NanoX 3D model (2024)This video shows the 3D view of the hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/bd593080-1c17-4b6a-9eee-f30673ab111a/6c9e0ee8-4998-40b7-9b85-cac94f679b9c-master.m3u8https://video.igem.org/videos/embed/po8wruEFbAW9SP24qXtr41100182024-09-29T13:49:55.851ZYES2024 TeamsNOhttps://video.igem.org/w/wzCi3n38bQvnVLX5cgQRW6https://video.igem.org/lazy-static/thumbnails/963ff15a-1b91-440d-a0de-796c4c8be49a.jpgVilnius-Lithuania: Interactive Educational Book (2024)Video showcasing Vilnius-Lithuania iGEM 2024 team's interactive educational book about synthetic biology. Wiki page link: https://2024.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/f7a41231-21e8-49a3-bd9e-826570ce0df5/4754e44c-abae-4a8d-871d-bab2a889d520-master.m3u8https://video.igem.org/videos/embed/wzCi3n38bQvnVLX5cgQRW6610262024-09-29T14:01:06.288ZYES2024 TeamsNOhttps://video.igem.org/w/2rxASfTvqS8qxc16aRBnkvhttps://video.igem.org/lazy-static/thumbnails/a4f66caa-6570-4d4f-9c91-c2bf7356e58c.jpgOUC-China: Exp. V - Unloaded assembly group (2024) [English]hardware experiment 5https://static.igem.org/peertube/streaming-playlists/hls/0baa3532-ef31-48a5-a806-325e1a0616c7/50304837-1090-47b3-8028-5987a4c5fac6-master.m3u8https://video.igem.org/videos/embed/2rxASfTvqS8qxc16aRBnkv12022024-09-29T15:51:07.103ZYES2024 TeamsNOhttps://video.igem.org/w/qDC9iAWD7Lv6YNuGT49EJFhttps://video.igem.org/lazy-static/thumbnails/f8922bde-0638-4a4d-9f71-2f366745b718.jpgOUC-China: Exp. VI - Assembly experiment group (2024) [English]hardware experiment 6https://static.igem.org/peertube/streaming-playlists/hls/c79c1f10-838c-4d35-a429-0de9f2343e53/99f262cf-45c6-416f-aac8-2bf819447864-master.m3u8https://video.igem.org/videos/embed/qDC9iAWD7Lv6YNuGT49EJF56032024-09-29T20:42:43.392ZYES2024 TeamsNOhttps://video.igem.org/w/nn3HpBX7LcYAfNe3ZjfRuBhttps://video.igem.org/lazy-static/thumbnails/227ba231-7f61-4ce0-8070-db5309a08e2c.jpgBNU-China: Step into the visually impaired community (2024) [Chinese]What is the world in the eyes of the visually impaired? By watching this video, you will gain a detailed understanding of their lives and daily routines, and step into their world together.https://static.igem.org/peertube/streaming-playlists/hls/ad00341b-4511-4d3b-a2f4-2dee48299b4f/184d8622-d808-465d-8c5d-e636af92b067-master.m3u8https://video.igem.org/videos/embed/nn3HpBX7LcYAfNe3ZjfRuB275052024-09-29T15:59:35.215ZPopular scienceVisually impairmentInclusivityYES2024 TeamsNOhttps://video.igem.org/w/izYWEkTYQgpDE4on5tgv7Lhttps://video.igem.org/lazy-static/thumbnails/72d04823-53f7-4ae3-9d28-2835b6323612.jpgZJU-China: Software Demo Video (2024) [English]This is a video that demonstrates the usage process of our software. Feel free to visit the following website for more information: https://2024.igem.wiki/zju-china/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/8e69fe5f-e471-4782-a859-e5a928eec364/9cc60878-6897-42d6-8c70-015233d9762d-master.m3u8https://video.igem.org/videos/embed/izYWEkTYQgpDE4on5tgv7L1300102024-09-29T14:14:20.863ZYES2024 TeamsNOhttps://video.igem.org/w/esHvuvCHowasRMYExqaQ5Fhttps://video.igem.org/lazy-static/thumbnails/7bf30d47-01d1-40a4-a7ae-1776074b057b.jpgSquirrel-CHN-II: MainBGM (2024)8-bit Fast Music Loop.wav by EVRetro -- https://freesound.org/s/583270/ -- License: Creative Commons 0https://static.igem.org/peertube/streaming-playlists/hls/6d01b89a-720e-4713-a707-eee8b89b8b97/8eed0910-0ccd-4fb6-8223-1a6e799f2212-master.m3u8https://video.igem.org/videos/embed/esHvuvCHowasRMYExqaQ5F104012024-09-29T23:17:33.035ZYES2024 TeamsNOhttps://video.igem.org/w/2wgjSdMa7JncqHWeqXqgTyhttps://video.igem.org/lazy-static/thumbnails/20d45ace-573b-4f70-8788-5548394581ad.jpgBIT-China: CBP1Co1 (2024)structure of protein CBP1Co1；Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/0c52e573-9d7b-49c0-8c9b-d3e6c5170f3a/b1d56c5f-6e82-40f5-9b3e-0d1b36c46510-master.m3u8https://video.igem.org/videos/embed/2wgjSdMa7JncqHWeqXqgTy19042024-09-29T15:47:49.893Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/gA9yx6jPqEPCN6S8Lbjy4whttps://video.igem.org/lazy-static/thumbnails/fd37ce90-f6c5-4473-964f-a949996cbb95.jpgBIT-China: CBP1 (2024)structure of protein CBP1；Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/7e3da4da-c213-46d9-be11-28863d6b27fc/33e66854-414f-41fb-9171-9e16d352732a-master.m3u8https://video.igem.org/videos/embed/gA9yx6jPqEPCN6S8Lbjy4w20042024-09-29T15:48:10.248Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/8DTu7du3YbCkMSyCyfqdwehttps://video.igem.org/lazy-static/thumbnails/e364119e-f96b-4512-afc3-03f6557e8b8b.jpgVilnius-Lithuania: Violeta Interview (2024) [Lithuanian]In this interview with diabetes nurse Violeta Bičkauskienė, we explore the advancements in diabetes care and technology over the past few years. Violeta shares her experience of more than 14 years working with diabetes management, discussing innovations such as glucose sensors and insulin pumps that have significantly transformed patients' daily lives. She also highlights the challenges faced by individuals with diabetes, including the emotional impact, the constant need for self-monitoring, and common issues related to the use of medical patches. Interviewee: Violeta Interviewer: Evelina Wiki page link: https://2024.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/3dfa37f7-dc99-450b-9de9-e24218e6c429/4b370ef9-fd64-4496-bed4-3e12eb11417d-master.m3u8https://video.igem.org/videos/embed/8DTu7du3YbCkMSyCyfqdwe1273002024-09-29T18:23:35.855ZYES2024 TeamsNOhttps://video.igem.org/w/oNZYr5eav5rTXBdG74tatahttps://video.igem.org/lazy-static/thumbnails/aeb0603c-af55-4a2a-96da-1253fcff06af.jpgUFlorida: Cell Culture Recording (2024) [English]A recording of how to culture cells in our model.https://static.igem.org/peertube/streaming-playlists/hls/b8b8fdb5-99bc-4abb-adf1-c6c6d61d0c93/5c6b3a89-f183-495e-ab07-bf4261a05dea-master.m3u8https://video.igem.org/videos/embed/oNZYr5eav5rTXBdG74tata23072024-09-29T16:02:44.057ZYES2024 TeamsNOhttps://video.igem.org/w/3RWmaPZJt2fqhPiLQffsJQhttps://video.igem.org/lazy-static/thumbnails/860da810-bc59-4585-b2cd-dafe13d41fcf.jpgHKPOLYU: banner_animation (2024)https://2024.igem.wiki/hkpolyuhttps://static.igem.org/peertube/streaming-playlists/hls/172b370c-e17a-4c60-aed8-6d4cdf7826ec/8bfc1ff3-bbcd-457f-b01a-68a95ec5a040-master.m3u8https://video.igem.org/videos/embed/3RWmaPZJt2fqhPiLQffsJQ120102024-09-29T20:43:05.986ZYES2024 TeamsNOhttps://video.igem.org/w/a3MGKJxUk43dtqdrjYujpShttps://video.igem.org/lazy-static/thumbnails/ac5557e2-57e9-4d98-b9b4-62e87c809455.jpgUFlorida: Differentiation Recording (2024) [English]A recording of the differentiation process in our model.https://static.igem.org/peertube/streaming-playlists/hls/4945e697-0a1d-43f0-b676-8c82a62e2f50/4175e206-5d63-49a2-a4f7-975a8013f150-master.m3u8https://video.igem.org/videos/embed/a3MGKJxUk43dtqdrjYujpS25052024-09-29T16:09:14.184ZYES2024 TeamsNOhttps://video.igem.org/w/dWf1DPv9jUidKcTJ1HmDwuhttps://video.igem.org/lazy-static/thumbnails/483520ee-0906-42b3-8e62-ded3289f94fd.jpgUFlorida: Light Infection Recording (2024) [English]A recording of the addition of a light infection to our model.https://static.igem.org/peertube/streaming-playlists/hls/68c07655-0390-4567-9e82-eb4b125c2ecc/3b20ca80-c1ef-437d-af8b-af4b9e1cff07-master.m3u8https://video.igem.org/videos/embed/dWf1DPv9jUidKcTJ1HmDwu57032024-09-29T18:31:11.260ZYES2024 TeamsNOhttps://video.igem.org/w/rwgUUQGe7LM1ezFchWPQ9jhttps://video.igem.org/lazy-static/thumbnails/1341fccb-4443-4ca8-b0e9-b153ba222109.jpgUFlorida: Moderate Infection, Cytokine Mode Recording (2024) [English]Running a moderate infection through our model, and showcasing the different viewing modes.https://static.igem.org/peertube/streaming-playlists/hls/ceae95fc-1681-43a3-af04-1d77d1b89a9a/38afe929-b6eb-4d69-85eb-49045986e954-master.m3u8https://video.igem.org/videos/embed/rwgUUQGe7LM1ezFchWPQ9j65032024-09-29T18:40:09.594ZYES2024 TeamsNOhttps://video.igem.org/w/foR69wbhex27nunn7kiAKKhttps://video.igem.org/lazy-static/thumbnails/c9c5c79e-bdf0-445e-be2b-179bcf3ffdd1.jpgPennState: Biotransformation Series -- setting up BSC (2024) [English]This video is a shot from the first module of the cell culture biotransformation series. The shot shows the set up of a biosafety cabinet, and how to add cell culture equipment aseptically to a sterile hood.https://static.igem.org/peertube/streaming-playlists/hls/74908e62-80fb-430c-988c-7d55cc434d09/22ea6214-3d42-41ae-a7f8-4d37a26a011c-master.m3u8https://video.igem.org/videos/embed/foR69wbhex27nunn7kiAKK63022024-09-29T16:29:14.549ZYES2024 TeamsNOhttps://video.igem.org/w/mZBsx5dA982NmCa2yQkeQVhttps://video.igem.org/lazy-static/thumbnails/3434883e-178d-49d4-9805-90534699b0bd.jpgUFlorida: Heavy Infection Recording (2024) [English]Running a heavy infection through our model.https://static.igem.org/peertube/streaming-playlists/hls/aa020501-c6fd-4e3f-9cea-aac822924ea1/2f6f3c71-26ea-4a89-bd83-30d42bd5eb10-master.m3u8https://video.igem.org/videos/embed/mZBsx5dA982NmCa2yQkeQV25022024-09-29T20:46:31.138ZYES2024 TeamsNOhttps://video.igem.org/w/h4f5h4pkxDv7Una1XrRu2whttps://video.igem.org/lazy-static/thumbnails/33b30701-b28c-437e-ba39-af3f67e63958.jpgUFlorida: Consecutive Infections Recording (2024) [English]Running consecutive infections through our model.https://static.igem.org/peertube/streaming-playlists/hls/82061f84-c70a-40dc-97b4-488f71f70960/965ca721-2aa6-4d53-9666-4afb867e45cf-master.m3u8https://video.igem.org/videos/embed/h4f5h4pkxDv7Una1XrRu2w32042024-09-29T22:09:54.626ZYES2024 TeamsNOhttps://video.igem.org/w/uSztKMG6YbiPVnch6zr2Svhttps://video.igem.org/lazy-static/thumbnails/8d1584fd-f470-4af8-99db-31515d76584c.jpgUFlorida: Immediate Infection Recording (2024) [English]Running a moderate infection through our model at the onset of the differentiation process.https://static.igem.org/peertube/streaming-playlists/hls/e9cfb3ee-94fc-4b81-8e5a-868915c7b42d/f996dd32-ee8f-4321-89b4-58100e0568f1-master.m3u8https://video.igem.org/videos/embed/uSztKMG6YbiPVnch6zr2Sv21012024-09-29T23:17:03.068ZYES2024 TeamsNOhttps://video.igem.org/w/h28bLmpznHWs8zsLipCuGxhttps://video.igem.org/lazy-static/thumbnails/d45fb1f2-88b4-4ca7-ba00-b1b92b626e67.jpgPennState: Biotransformation Series -- Rooming Media from Water Bath (2024) [English]This video is a shot from the first module of the cell culture biotransformation series. The shot shows how to move media from a water bath to ensure contamination does not occur, when the media is moved to the biosafety cabinet.https://static.igem.org/peertube/streaming-playlists/hls/81ba63ff-254d-426a-b5fe-d6e26fe945cf/ced69df0-1717-452d-9a82-cf645ddbf140-master.m3u8https://video.igem.org/videos/embed/h28bLmpznHWs8zsLipCuGx56022024-09-29T16:39:23.965ZYES2024 TeamsNOhttps://video.igem.org/w/sycGZxAMF5YUpNvttC952Ghttps://video.igem.org/lazy-static/thumbnails/f74e03ab-af96-42d5-aafe-75a79b393c4a.jpgPennState: Biotransformation Series -- Making Media (2024) [English]This video is a shot from the first module of the cell culture biotransformation series. The shot shows proper pipetting and aseptic technique when preparing media for use with cells, in this case the media used is RPMI.https://static.igem.org/peertube/streaming-playlists/hls/d70c9ecf-1ad1-4d31-b794-a9c52b493192/02c1f482-ea67-4c78-9f92-aa825d81f3a5-master.m3u8https://video.igem.org/videos/embed/sycGZxAMF5YUpNvttC952G16052024-09-29T16:40:52.662ZYES2024 TeamsNOhttps://video.igem.org/w/h5aPYoVT6MGe2xESi734Uwhttps://video.igem.org/lazy-static/thumbnails/f2647af3-43ca-4dd1-bf77-6064e1b48e2b.jpgMarburg: Dandelion Seedling's Month-Long Journey (2024)Follow the development of a dandelion seedling over the course of one month in this timelapse. Starting from a tiny sprout, the dandelion grows steadily, pushing out leaves and strengthening its roots. iGEM Team Marburg 2024 Wiki: https://2024.igem.wiki/marburg/https://static.igem.org/peertube/streaming-playlists/hls/82273ff3-9de5-494a-98b8-f4b160c84a22/1cb56ac0-3c13-4b9a-a94e-508a8d264724-master.m3u8https://video.igem.org/videos/embed/h5aPYoVT6MGe2xESi734Uw30513732024-09-29T16:38:31.234ZdandeliontimelapseYES2024 TeamsNOhttps://video.igem.org/w/gAXpa8n3aXKgeUTjwdzrSYhttps://video.igem.org/lazy-static/thumbnails/b9f23526-d770-40db-bf0b-dbfa5250d854.jpgSorbonne-U-Paris: MHETase-PETase Structure (2024)By AlphaFold, visualiation of the MHETase-PETase's structure.https://static.igem.org/peertube/streaming-playlists/hls/7e5a8253-b650-4232-b28c-5868733eeab8/ce835ab4-1dd2-4996-95da-700e4eaf22b5-master.m3u8https://video.igem.org/videos/embed/gAXpa8n3aXKgeUTjwdzrSY170252024-09-29T17:17:04.853ZYES2024 TeamsNOhttps://video.igem.org/w/gaTwVzhsvskjCaJcy6HNSthttps://video.igem.org/lazy-static/thumbnails/3e662201-b936-426b-86c6-5f4aa0f05366.jpgRochester: Facilities Tour Video4 (2024)Tour of the facilities of the University of Rochester's Energy Facilities. Led by Jonathan Herington. https://2024.igem.wiki/rochester/https://static.igem.org/peertube/streaming-playlists/hls/7ada8843-0138-4300-854f-7d1a2fecbc5f/6643a8e4-ff71-4b9f-84d8-61772e302571-master.m3u8https://video.igem.org/videos/embed/gaTwVzhsvskjCaJcy6HNSt18012024-09-29T17:37:13.174ZYES2024 TeamsNOhttps://video.igem.org/w/a9xnLxAA42x62zmR3qrUFNhttps://video.igem.org/lazy-static/thumbnails/fcca099b-226d-4a00-b9da-56857f9c5fc3.jpgRochester: Facilities Tour Video3 (2024)Facilities Tour Video of the University of Rochester's Energy System, led by Mike Whitmore. https://static.igem.org/peertube/streaming-playlists/hls/4a1388a8-8fe1-4da4-8b78-18082d52223c/cd157a12-0f01-4a13-a233-3c2fe22b2dde-master.m3u8https://video.igem.org/videos/embed/a9xnLxAA42x62zmR3qrUFN3012024-09-29T17:37:23.960ZYES2024 TeamsNOhttps://video.igem.org/w/1E3hwKcLc2jUQmgc8hu7QThttps://video.igem.org/lazy-static/thumbnails/842d4f8e-f0a1-4d62-95ea-d97a65c57216.jpgRochester: Facilities Tour Video2 (2024)Tour of the University of Rochester's Energy Facilities. Led by Mike Whitmore. https://gitlab.igem.org/2024/rochesterhttps://static.igem.org/peertube/streaming-playlists/hls/054fabe3-a250-4687-82a5-3a87474ea4eb/308dc7f4-05ce-4737-bdee-decb69b93b2c-master.m3u8https://video.igem.org/videos/embed/1E3hwKcLc2jUQmgc8hu7QT17002024-09-29T17:53:54.826ZYES2024 TeamsNOhttps://video.igem.org/w/u4TPfyhHdAZer8ALYg3zyZhttps://video.igem.org/lazy-static/thumbnails/020702de-7320-4af0-8816-831d942d3f5a.jpgRochester: Facilities Tour Video1 (2024)Tour of the University of Rochester's Energy Facilities, led by Mike Whitmore. https://2024.igem.wiki/rochester/https://static.igem.org/peertube/streaming-playlists/hls/e34b0bb4-0973-4079-a9bd-240b7b18315d/afb50fff-f519-4733-b62b-6775147b7906-master.m3u8https://video.igem.org/videos/embed/u4TPfyhHdAZer8ALYg3zyZ90202024-09-29T18:31:32.742ZYES2024 TeamsNOhttps://video.igem.org/w/168jj9eMwEFvj8xXyk22yVhttps://video.igem.org/lazy-static/thumbnails/fb1dee24-3fc9-448f-9be4-5f75dba5aab9.jpgECUST: description03 (2024) [English]https://2024.igem.wiki/ecust/https://static.igem.org/peertube/streaming-playlists/hls/00b73a32-8941-4242-a612-2ba40667ff31/4b2f35c5-faf6-4283-98d1-46fe155e853b-master.m3u8https://video.igem.org/videos/embed/168jj9eMwEFvj8xXyk22yV400282024-09-29T17:55:14.142ZYES2024 TeamsNOhttps://video.igem.org/w/aBbRAN82Gp8sSSURK6KDPvhttps://video.igem.org/lazy-static/thumbnails/fc1abc12-9560-4b54-8001-3af4415df832.jpgSZ-SHD: hardware1 (2024)It is a demostration of SZ-SHD 2024 hardware. https://static.igem.org/peertube/streaming-playlists/hls/4dcbf839-74b2-4b30-aee7-500f1b84831f/beeabbe4-0f50-4b47-96a9-eb526c4c03bb-master.m3u8https://video.igem.org/videos/embed/aBbRAN82Gp8sSSURK6KDPv10002024-09-29T18:05:54.240ZYES2024 TeamsNOhttps://video.igem.org/w/3Td3Lu7ydEeVYCjh9w7ZBBhttps://video.igem.org/lazy-static/thumbnails/c09e9841-aa92-41b2-87df-26764bd96ef2.jpgVilnius-Lithuania: Ask the Scientist: Viruses (2024) [English]The video is about biodiversity with Dr. Maria Fernanda Torres Jimenez. Biodiversity is the foundation of healthy ecosystems, which provide essential services that support all life, including humans. In this video, we highlight the effects of climate change and human interactions with the ecosystems around us. Wiki page link: https://2024.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/1758a25e-6613-4cc7-8b54-9f93d1cf57e5/55ad5181-5b8d-402e-a97b-d862e1dd4a24-master.m3u8https://video.igem.org/videos/embed/3Td3Lu7ydEeVYCjh9w7ZBB406022024-09-29T20:26:13.491ZYES2024 TeamsNOhttps://video.igem.org/w/pdSoLVA4PFMUDvUGMFo553https://video.igem.org/lazy-static/thumbnails/2c12bdfe-0473-473c-87eb-5ca339f301c7.jpgVilnius-Lithuania: Ask the Scientist: Bacteriophages (2024) [English]The video is about bacteriophages with Dr. Lina Aitmanaitė. Beyond explaining what bacteriophages are, she addressed the growing issue of antibiotic resistance. Wiki page link: https://2024.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/bc0e2b85-4d3c-47a1-9ede-5ed2db56e27a/ac4db9e0-d634-4b40-ae60-7d11db1f3774-master.m3u8https://video.igem.org/videos/embed/pdSoLVA4PFMUDvUGMFo553253012024-09-29T21:58:33.474ZYES2024 TeamsNOhttps://video.igem.org/w/hV78idczoNPMXMjrzNNX2mhttps://video.igem.org/lazy-static/thumbnails/e5e2d879-d0c2-4380-83e7-944bcf86c83c.jpgVilnius-Lithuania: Ask the Scientist: Biodiversity (2024) [English]The video is about biodiversity with Dr. Maria Fernanda Torres Jimenez. In this video, we highlight the effects of climate change and human interactions with the ecosystems around us. Wiki page link: https://2024.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/88fc69dd-36c7-41ec-a079-003bd93390fa/93b6127f-46c0-48a6-a73c-187a3b44f045-master.m3u8https://video.igem.org/videos/embed/hV78idczoNPMXMjrzNNX2m326012024-09-29T23:08:46.182ZYES2024 TeamsNOhttps://video.igem.org/w/gToZ8YMXRgSvnfL2enHT4zhttps://video.igem.org/lazy-static/thumbnails/fa6c84c2-e75e-483c-ad90-4b8ca344b835.jpgAthens: Τι σημαίνει Συνθετική Βιολογία; Aπό την επιστήμη στην καινοτομία! (2024) [Greek]Ήξερες τι σημαίνει Συνθετική Βιολογία; Αν όχι τότε είσαι στο κατάλληλο μέρος! Ο Στάθης Αλωνάρης και ο Βαρδή Κρίστιαν, μέλη της ομάδας IGEM Athens 2024, μας εξηγούν τι είναι η συνθετική βιολογία, πως μπορεί να συμβάλει στην επίλυση καίριων προβλημάτων καθώς επίσης και τη εμπειρία τους από την συμμετοχή τους στη διεπιστημονική αυτή ομάδα. Για 7η συνεχή χρονιά, ένδεκα προπτυχιακοί και μεταπτυχιακοί φοιτητές, φοιτήτριες και πτυχιούχοι από τα κορυφαία ανώτατα εκπαιδευτικά ιδρύματα της Αθήνας συνεργάζονται για τη δημιουργία μιας διεπιστημονικής ομάδας, με σκοπό τη συμμετοχή στον Διαγωνισμό iGEM 2024, τον μεγαλύτερο και διεθνώς αναγνωρισμένο διαγωνισμό στον τομέα της Συνθετικής Βιολογίας! Ο διαγωνισμός iGEM (international Genetically Engineered Machine) είναι ένας παγκόσμιος διαγωνισμός συνθετικής βιολογίας που διοργανώθηκε για πρώτη φορά το 2003 από το πανεπιστήμιο MIT με στόχο την παρακίνηση φοιτητών να διεξάγουν τη δική τους έρευνα, παράγοντας καινοτόμες και βιώσιμες λύσεις σε τομείς όπως η διάγνωση και η θεραπεία ασθενειών και η προστασία του περιβάλλοντος. To iGEM Foundation σήμερα είναι ένας ανεξάρτητος μη κερδοσκοπικός οργανισμός που καλεί φοιτητές και μαθητές από όλον τον κόσμο να σχηματίσουν τις δικές τους διεπιστημονικές ομάδες και να εφαρμόσουν τις βασικές αρχές μηχανικής σε βιολογικά συστήματα.https://static.igem.org/peertube/streaming-playlists/hls/80a62d60-e668-4ce4-a599-ef13beee1313/9bad79c3-7b72-4252-9a21-4a2efd7c23f2-master.m3u8https://video.igem.org/videos/embed/gToZ8YMXRgSvnfL2enHT4z23240122024-09-29T19:09:02.134Z2024iGEMAthensiGEM AthensYES2024 TeamsNOhttps://video.igem.org/w/dHbu3Qosfx94KWu31x1nVkhttps://video.igem.org/lazy-static/thumbnails/a6537dd4-d4a0-44fe-92f3-63419dd96cad.jpgSUSTechOCEAN: home (2024) [English]The video is used for the heading of the home page, intending to introduce the whole project.https://static.igem.org/peertube/streaming-playlists/hls/66ed9e86-6c2a-4386-b43d-b3f11f16d779/da60a81e-6f10-4b48-a9be-4dd3df397be2-master.m3u8https://video.igem.org/videos/embed/dHbu3Qosfx94KWu31x1nVk2301892024-09-29T19:55:32.840ZCollaborationiGEMHuman PracticeHardwareExperimentYES2024 TeamsNOhttps://video.igem.org/w/eoEhw8fHqbRiJp1QWWALpkhttps://video.igem.org/lazy-static/thumbnails/5cf94ec4-1f23-4b54-aee8-b364d19027e8.jpgNanjing-China: Hardware Demo (2024) [Chinese]According to our wet experiment needs, the hardware part designed an electric energy harvesting circuit for microbial fuel cells. Considering that the output power of the microbial fuel cell is small, which is insufficient to directly drive the load and boost circuit, the charge pump is used to collect the power of the battery as the starting voltage of the subsequent DC conversion circuit. The supercapacitor is used as the energy storage element, and finally the DC is converted into the voltage required by the load. Demonstrator: Wang Haozhe, Zhang Wanru Wiki: https://2024.igem.wiki/nanjing-china/https://static.igem.org/peertube/streaming-playlists/hls/6c70c266-83f2-47f1-8f33-f0e1ef4164e9/9aa9a7fd-5cc6-40da-ad64-9410a0c67596-master.m3u8https://video.igem.org/videos/embed/eoEhw8fHqbRiJp1QWWALpk10042024-09-29T20:26:19.386ZYES2024 TeamsNOhttps://video.igem.org/w/qdx3Sdh7Di5Yyg4NJKyqCmhttps://video.igem.org/lazy-static/thumbnails/367bdeba-1e2c-407b-b7c1-56d917ebf7e3.jpgGU-Frankfurt: Talk at Frankfurt Science Festival (2024) [German]The Frankfurt Science Festival brought together renowned scientists from institutions in the Rhine-Main region to engage the public in their research. Organized by the Frankfurt Alliance and supported by local sponsors, the event featured diverse booths and workshops, including SOLAR. Our presentation emphasized raising awareness about skin cancer and sustainable product development. With past experience in public outreach, we successfully engaged a broad audience, leading to the official launch of our app, which aims to promote responsible consumer choices in sunscreen selection. Wiki: https://2024.igem.wiki/gu-frankfurt/ Linktree: https://igem-ffm.de/ https://static.igem.org/peertube/streaming-playlists/hls/c41b6351-3513-4dfa-85d4-c48d90a6248c/befeca1a-4272-40b6-a2ea-5decc7044a12-master.m3u8https://video.igem.org/videos/embed/qdx3Sdh7Di5Yyg4NJKyqCm6190112024-09-29T21:21:00.448ZYES2024 TeamsNOhttps://video.igem.org/w/45GGrKrHMFo8efXJweCWnThttps://video.igem.org/lazy-static/thumbnails/d798dbb0-69ce-4eb5-9f1b-46b4addb03b0.jpgIISER-TVM: p450_BC_Fusion_white (2024)This is the video for modelling page https://static.igem.org/peertube/streaming-playlists/hls/18f378bf-3ccc-438e-b8e0-c7c12ae02ebd/08f8f2eb-de86-49f2-a7d3-5ea72696c412-master.m3u8https://video.igem.org/videos/embed/45GGrKrHMFo8efXJweCWnT14032024-09-29T21:39:20.045ZYES2024 TeamsNOhttps://video.igem.org/w/rtUtiRbQvq6YzdXEfMpGZghttps://video.igem.org/lazy-static/thumbnails/f9194669-4371-44c8-a610-9a4e4f9c26e3.jpgIISER-TVM: p450_BC_Fusion_black (2024)This is the second video for modelling page.https://static.igem.org/peertube/streaming-playlists/hls/ce59e274-0bf9-4d8f-8cc4-b4b98fe7cbc1/713c5451-3611-4ed9-8625-fd648842eee6-master.m3u8https://video.igem.org/videos/embed/rtUtiRbQvq6YzdXEfMpGZg140152024-09-29T21:40:05.925ZYES2024 TeamsNOhttps://video.igem.org/w/kUmi8RohA1hRnuNnGisMhPhttps://video.igem.org/lazy-static/thumbnails/bf0acfed-4102-4e4c-9ad6-c0b37af917af.jpgMadrid-UCM: Animation cycle (2024)Animation of our process. https://2024.igem.wiki/madrid-ucm/https://static.igem.org/peertube/streaming-playlists/hls/a12cd16e-2e88-4794-b972-b479b8392283/641a5f6d-574c-4293-bb3c-f1f61f909d60-master.m3u8https://video.igem.org/videos/embed/kUmi8RohA1hRnuNnGisMhP5012024-09-29T23:08:53.992ZYES2024 TeamsNOhttps://video.igem.org/w/6VAL5XMZWF5v2zbAWRU5AJhttps://video.igem.org/lazy-static/thumbnails/b0889a0c-4287-4228-bda8-1734a47dd94d.jpgUFlorida: Preschool Scientist Video (2024) [English]An educational video that our human practices team presented to preschool students about what it means to be a scientist.https://static.igem.org/peertube/streaming-playlists/hls/2ff988e7-583f-4a0b-a833-fd27c8a598de/3c228aec-35ff-4ab8-a9af-19b56aa05c55-master.m3u8https://video.igem.org/videos/embed/6VAL5XMZWF5v2zbAWRU5AJ53032024-09-29T23:23:56.968ZYES2024 TeamsNOhttps://video.igem.org/w/7oybcEU5rb5o5BR4QBXAi5https://video.igem.org/lazy-static/thumbnails/57b483ee-c803-43c9-9432-bd659402bd42.jpgUFlorida: Preschool Storybook Video (2024) [English]A storybook video that our human practices team showcased to preschool students.https://static.igem.org/peertube/streaming-playlists/hls/33bd0624-5ded-4294-8dbe-a363dfdb30ae/dac97666-59be-4762-8621-6cf6a3cc7b71-master.m3u8https://video.igem.org/videos/embed/7oybcEU5rb5o5BR4QBXAi568022024-09-29T23:26:15.521ZYES2024 TeamsNOhttps://video.igem.org/w/1pHT9uthobbdRLUJWHpGHThttps://video.igem.org/lazy-static/thumbnails/91215051-09b6-4247-859c-58c82ba65e44.jpgFreiburg: Lipid Nanoparticle formation with Pipetting (2024) [English]Hey we are the iGEM Team Freiburg 2024 and this is our contribution video. We walk through the procedure of forming lipid Nanoparticles using the Pipetting Method. This is our Wiki https://2024.igem.wiki/freiburg/https://static.igem.org/peertube/streaming-playlists/hls/034fead4-aa1c-4c90-ae77-2dfe7e60a685/38186464-dffc-49ae-88fe-d5e2c0b742fa-master.m3u8https://video.igem.org/videos/embed/1pHT9uthobbdRLUJWHpGHT1530212024-09-30T00:44:03.344Zlipid nanoparticlesYES2024 TeamsNOhttps://video.igem.org/w/8xogSSSi7tdzocQXT1XrcShttps://video.igem.org/lazy-static/thumbnails/30ec5ca0-1f79-41a6-8c4e-1970603d6eda.jpgUNC-ChapelHill: Plasmid Vector (2024) [English]Video describing the plasmid generation protocol of the experiment as well as protein purification prior to binding affinity testing. https://2024.igem.wiki/unc-chapelhill/https://static.igem.org/peertube/streaming-playlists/hls/3d11c111-77a4-4b32-ad75-d405493e036c/0f8b9cd6-cdc8-45f9-83f6-a8070cef2e42-master.m3u8https://video.igem.org/videos/embed/8xogSSSi7tdzocQXT1XrcS150162024-09-30T00:49:07.608ZYES2024 TeamsNOhttps://video.igem.org/w/84Jf1KHwgUzfymsVf3v6jKhttps://video.igem.org/lazy-static/thumbnails/76577de1-b104-46d0-a020-10bcb3e9a204.jpgVirginia: Dr. Froh Interview (2024) [English]Clip of interview with cystic fibrosis expert Dr. Froh.https://static.igem.org/peertube/streaming-playlists/hls/39353bf7-5875-46a1-8f4b-c96ef68bb59b/279f7207-cf45-4dd5-bae5-e3045c46d761-master.m3u8https://video.igem.org/videos/embed/84Jf1KHwgUzfymsVf3v6jK11012024-09-30T02:15:13.978ZYES2024 TeamsNOhttps://video.igem.org/w/hK6L4mLEmqGLQCEaaukiJjhttps://video.igem.org/lazy-static/thumbnails/02152910-c159-4ca2-8d49-1cb80f403360.jpgStanford: Early Onset May 2024, featuring Heloise Hoffmann and the Stanford FSHD Research Team (2...Our guests are Heloise Hoffmann and the iGEM research team at Stanford. Heloise was diagnosed with FSHD at 13, and has been a fierce advocate in the FSHD community for the past several years. Now a sophomore at Stanford University, she’s working with a research team to develop a novel therapeutic approach for FSHD. The team is made up of 8 Stanford undergrads studying multidisciplinary fields of bioengineering and computer science, harnessing diverse fields of expertise to design a multifaceted solution for FSHD. They hope to design a life-altering therapeutic package targeted at both stopping progression of the disease and restoring function. At this Roundtable, they share more about their research and efforts to elevate patient voices through the project. They have been working tirelessly since January to design the project and look forward to dedicating their energy full-time this summer and presenting their findings at a congress in Paris in the fall. Most of all, they are thrilled about the opportunity to make a lasting impact in the landscape of FSHD research and contribute to accelerating a cure!https://static.igem.org/peertube/streaming-playlists/hls/8796c00a-8ee5-4079-80ce-cb1d9d7d6592/4fae3839-2755-4f2d-a0ab-dafc1f07072d-master.m3u8https://video.igem.org/videos/embed/hK6L4mLEmqGLQCEaaukiJj36860182024-09-30T05:25:13.034ZYES2024 TeamsNOhttps://video.igem.org/w/gW2z9FEirAnMqGHyhyHJmThttps://video.igem.org/lazy-static/thumbnails/3136f9a9-a2a1-4141-817a-c678e8da446b.jpgCSU-CHINA: hardware (2024) [Chinese] The video demonstrates how to use the hardware we designed.https://static.igem.org/peertube/streaming-playlists/hls/81043644-529d-453e-8bdd-70939b49038b/db1ee0cf-ef13-40c1-8a10-8c7fcc89a78e-master.m3u8https://video.igem.org/videos/embed/gW2z9FEirAnMqGHyhyHJmT350152024-09-30T05:44:44.232ZYES2024 TeamsNOhttps://video.igem.org/w/nR2GgUUCSivxsPJBscFfe5https://video.igem.org/lazy-static/thumbnails/fba500f6-4522-4478-b956-47c2ee76bf28.jpgStanford: Animation Circle (2024)Loading animation for the wiki. It's our logo cutting DUX-FL.https://static.igem.org/peertube/streaming-playlists/hls/b0e8669a-4add-4672-896a-abf9351993b6/6f164f27-d2cc-4f15-977b-5b7f6de30277-master.m3u8https://video.igem.org/videos/embed/nR2GgUUCSivxsPJBscFfe51022024-09-30T20:51:48.081ZYES2024 TeamsNOhttps://video.igem.org/w/gmcqDchGZF7Gm9EHyhkrNYhttps://video.igem.org/lazy-static/thumbnails/87b94d22-9dae-4130-9ae5-ecd7bf36050f.jpgAIS-China Hardware Demonstration (2024) [English]View the video to know more about how Moskilla works! UV Light: 00:03 Button: 00:06 Screw Motor: 00:45 Installing death-induction liquid: 01:06 Electrical Components: 01:15https://static.igem.org/peertube/streaming-playlists/hls/7c4aff01-4e30-4eaa-b87b-4612f5770860/f2b1adf0-39b6-4861-bf29-6aa26a5302c7-master.m3u8https://video.igem.org/videos/embed/gmcqDchGZF7Gm9EHyhkrNY870472024-09-30T05:49:00.590ZDemonstrationAIS-ChinaHardwareYES2024 TeamsNOhttps://video.igem.org/w/gj4dUHZBmQsd1AoZdymkV7https://video.igem.org/lazy-static/thumbnails/f95f8310-e3a5-4614-938a-346d6a40146e.jpgShanghai-HS: Education (2024) [Chinese]Shanghai-HS: Education (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/7bfe7428-3b6c-42aa-8d49-b59795dec394/fc6fa7e1-3464-49f3-801f-0823c22e4bc0-master.m3u8https://video.igem.org/videos/embed/gj4dUHZBmQsd1AoZdymkV7148042024-09-30T05:52:11.710ZYES2024 TeamsNOhttps://video.igem.org/w/xfcd6hTSPBV7kSES66DJjqhttps://video.igem.org/lazy-static/thumbnails/bdb30f93-3475-430e-a631-c2e2b28cf226.jpgUBC-Vancouver: Bioreactor How-to-Use (2024) [English]This video covers the essential safety and preparation steps for using our bioreactor, including sterilization procedures, biosafety cabinet setup, and bioreactor preapration for media and bacteria intake.https://static.igem.org/peertube/streaming-playlists/hls/fd069e63-6954-46c6-9db4-91f0fabfb8cc/162902e3-8585-4e45-9ba2-afb28117d236-master.m3u8https://video.igem.org/videos/embed/xfcd6hTSPBV7kSES66DJjq1340432024-09-30T05:56:57.325ZYES2024 TeamsNOhttps://video.igem.org/w/iKCZGfUNhEv69XT9TgV1vLhttps://video.igem.org/lazy-static/thumbnails/56930db1-bc1f-4239-9ca6-35b0256bf1d8.jpgHKUST: Students’ Feedback on YSIP (2024) [English]In this engaging video, we delve into the transformative experiences of students who participated in the Youth Scientist Incubation Program (YSIP). Through heartfelt interviews, they shared how the program has significantly impacted their view towards synthetic biology and what they have gained from the 1.5 months summer program.https://static.igem.org/peertube/streaming-playlists/hls/8fc3235d-1cfc-4f06-a779-b298c602d056/23f2bd89-5914-4175-abed-8e59c50ac655-master.m3u8https://video.igem.org/videos/embed/iKCZGfUNhEv69XT9TgV1vL6350142024-09-30T08:20:47.980ZEmpowermentSummer ProgramPublic EngagementYSIPEducationYES2024 TeamsNOhttps://video.igem.org/w/3csVZxUEee2xiGY8ir4ftehttps://video.igem.org/lazy-static/thumbnails/f9668b91-91e1-4f48-9a62-bc70250208c1.jpgUBC-Vancouver: Microfluidic Assembly Tutorial (2024) [English]This video provides a step-by-step guide for assembling a microfluidic chip.https://static.igem.org/peertube/streaming-playlists/hls/11cc0e38-5860-4e43-9756-87faabf0308b/feb2122f-5aa6-4f09-99f1-0913a55cffcd-master.m3u8https://video.igem.org/videos/embed/3csVZxUEee2xiGY8ir4fte1090272024-09-30T09:21:21.336ZYES2024 TeamsNOhttps://video.igem.org/w/rzjgJsQzciG4L2d4MdbiWjhttps://video.igem.org/lazy-static/thumbnails/08a0ca44-ae21-4b96-a3d2-32ca8ce68704.jpgBIT-China: CBP1Co4 (2024)structure of protein CBP1Co4;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/cf1b455d-ddb2-435c-9895-607c7cf0a0e2/3cf9e9bf-68f4-47ea-a9bf-45543a074597-master.m3u8https://video.igem.org/videos/embed/rzjgJsQzciG4L2d4MdbiWj17002024-09-30T20:52:06.966Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/uiYhiemCRNvVcLUC4Wn9pohttps://video.igem.org/lazy-static/thumbnails/ab3ea8f8-0a39-4719-928d-2c61ea09a746.jpgBIT-China: CBP2-1 (2024)structure of protein CBP2-1;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/e5423601-5fae-4e9f-9e7e-17d0a32cfef4/4d0e9045-2a27-48fe-aa2e-eab91699d7c5-master.m3u8https://video.igem.org/videos/embed/uiYhiemCRNvVcLUC4Wn9po15012024-10-01T10:17:26.333ZYES2024 TeamsNOhttps://video.igem.org/w/6iuUDVx6w6GDRDMDi7FbWXhttps://video.igem.org/lazy-static/thumbnails/cac04f9f-746a-4b60-af38-c4c1a4b269f1.jpgBIT-China: CBP2-2 (2024)structure of protein CBP2-2；Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/2aef2708-46ab-4350-be5c-932d40162cb3/e9b931d3-002c-4d24-bdc0-5678cad140b7-master.m3u8https://video.igem.org/videos/embed/6iuUDVx6w6GDRDMDi7FbWX16002024-10-01T13:04:46.187Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/5yxEWeMLHPTACoaouWNWFPhttps://video.igem.org/lazy-static/thumbnails/6b622ab4-4925-4fdc-8c40-07de417e7461.jpgBIT-China: CBP2-3 (2024)structure of protein CBP2-3;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/24efdf97-bf6b-4075-ab4f-ab9e0ebe36ad/e8bf02f3-84de-4e12-9610-d05d2cb33eb5-master.m3u8https://video.igem.org/videos/embed/5yxEWeMLHPTACoaouWNWFP21002024-10-01T14:25:35.433Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/abbvdqcWMCTKf8QQFWgWaPhttps://video.igem.org/lazy-static/thumbnails/9a589116-15ff-49ac-805d-ffd19631ada8.jpgBIT-China: LBP3-1 (2024)structure of protein LBP3-1;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/4a4e28a5-2049-4933-bbd7-a363db7f37e9/f8fcc3c9-57ec-49e7-8bfe-d852f9114399-master.m3u8https://video.igem.org/videos/embed/abbvdqcWMCTKf8QQFWgWaP22012024-10-01T14:43:47.728Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/pGggfTdax9zmPbpvfPuvYMhttps://video.igem.org/lazy-static/thumbnails/c87f890e-3145-47f0-aa34-9489273d2777.jpgBIT-China: LBP3-2 (2024)structure of protein LBP3-2;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/bfe1589e-4adc-4806-8228-7e94346d09c1/370b15b4-92c1-462a-b421-f5eafc73626e-master.m3u8https://video.igem.org/videos/embed/pGggfTdax9zmPbpvfPuvYM9022024-10-01T16:52:40.538Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/nrkv91K5Jtypr8ndudAjLvhttps://video.igem.org/lazy-static/thumbnails/bccf4ea7-568e-432c-8f28-fd2ae4e0f002.jpgBIT-China: LBP3-3 (2024)structure of protein LBP3-3;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/ad99865e-838c-46e1-a039-155e74aa6ead/fb270d60-5773-4a8b-b050-b6a519f9bb02-master.m3u8https://video.igem.org/videos/embed/nrkv91K5Jtypr8ndudAjLv21022024-10-01T17:32:44.375Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/4eod6akxZdytYzAurZaQRChttps://video.igem.org/lazy-static/thumbnails/eee6a3c3-2037-471f-87d2-2c74b16e55a0.jpgBIT-China: NBP1-1 (2024)structure of protein NBP1-1;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/1a29c57b-e45b-45de-a1ac-3562a1394396/5ee8bb76-878b-4b3c-a246-836ddba8ea19-master.m3u8https://video.igem.org/videos/embed/4eod6akxZdytYzAurZaQRC20002024-10-01T17:55:31.611ZYES2024 TeamsNOhttps://video.igem.org/w/wNfK4kcUMDoYfLu1mqY84Thttps://video.igem.org/lazy-static/thumbnails/cefe7e04-89b3-42d6-887a-fc362e293185.jpgBIT-China: NBP1-2 (2024)structure of protein NBP1-2;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/f9677562-1250-45e4-8e3e-a4038d41bd9d/26e47de9-5557-417d-879a-eaa6ff2758db-master.m3u8https://video.igem.org/videos/embed/wNfK4kcUMDoYfLu1mqY84T20002024-10-01T18:00:11.269Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/89Egwn9LBzwU536Q7ZzY2ihttps://video.igem.org/lazy-static/thumbnails/9cdd8b2f-a12c-425a-bab1-81eb44f77c9b.jpgBIT-China: NBP1-3 (2024)structure of protein NBP1-3;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/39e58109-c56e-4ccf-b7ed-3fc9ee528423/8ed28714-6b46-481f-b258-42f3fb30337c-master.m3u8https://video.igem.org/videos/embed/89Egwn9LBzwU536Q7ZzY2i21012024-10-01T18:00:59.795Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/xhLa3y1MDE6sdtCvn8bmaehttps://video.igem.org/lazy-static/thumbnails/5a6a0005-04c1-4c28-89aa-f49aa1c2e4d1.jpgBIT-China: NBP2 (2024)structure of protein NBP2;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/fd62692c-bef0-4d19-baef-56ba06962247/1441143d-1b17-4cef-94b5-ccd196e21600-master.m3u8https://video.igem.org/videos/embed/xhLa3y1MDE6sdtCvn8bmae21002024-10-01T18:02:46.223Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/tsceh7LUupx8TJTToFVW1Jhttps://video.igem.org/lazy-static/thumbnails/56e416f8-e343-481c-a2f6-e46d17e3f47f.jpgBIT-China: NBP2Ni1 (2024)structure of protein NBP2Ni1;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/de4f007d-5ef8-4acf-acc6-38642e081b7a/41e84d85-5ebd-426d-a968-5c8e46a6ea04-master.m3u8https://video.igem.org/videos/embed/tsceh7LUupx8TJTToFVW1J15002024-10-01T18:03:15.706Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/r7qxdzQ8Dihy8TASBuCxTMhttps://video.igem.org/lazy-static/thumbnails/ae4bf324-28fa-44f0-a8f8-6c3fd8cc897e.jpgBIT-China: NBP2Ni4 (2024)structure of protein NBP2Ni4;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/cb5a0d24-6e93-4f6c-9e1c-2d6dcf6f89d7/8a99cd9d-18b5-4b47-9bae-35a66f03fb5a-master.m3u8https://video.igem.org/videos/embed/r7qxdzQ8Dihy8TASBuCxTM21002024-10-01T18:03:39.048Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/wqKxWQjhygSLjUxcbX1Ueqhttps://video.igem.org/lazy-static/thumbnails/c2e20247-0977-4f3b-ab4b-0379979a75b5.jpgBIT-China: NBP3 (2024)structure of protein NBP3;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/f666d972-7bb8-4157-b2c0-845a0542774a/c3cd2b40-ac90-4d5d-bf3d-cb5db4713a85-master.m3u8https://video.igem.org/videos/embed/wqKxWQjhygSLjUxcbX1Ueq20002024-10-01T18:04:42.549Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/andzgXZcEQQ4tpUs4GpJBUhttps://video.igem.org/lazy-static/thumbnails/e31ab7c8-71de-4d61-8b19-2de8d9981a9e.jpgBIT-China: NBP3Ni1 (2024)structure of protein NBP3Ni1;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/4bd89dad-e8c2-4f15-8618-4c0846a69a82/98809cda-eadb-4a66-8c7a-0320fd28ca37-master.m3u8https://video.igem.org/videos/embed/andzgXZcEQQ4tpUs4GpJBU20002024-10-01T18:05:46.824Zstructure of protein YES2024 TeamsNOhttps://video.igem.org/w/g4eFRnb45MHcCJfTftAyEzhttps://video.igem.org/lazy-static/thumbnails/2acabc45-5c85-4567-9442-b7dc01cfa5ea.jpgBIT-China: NBP3Ni3 (2024)structure of protein NBP3Ni3;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/79ecbf05-808a-417b-b67d-a93b69751dbd/512cafcc-6cd9-4ca0-8e93-e2715c5650a7-master.m3u8https://video.igem.org/videos/embed/g4eFRnb45MHcCJfTftAyEz17002024-10-01T18:06:24.668Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/9E8wutFevjETz6pSHWABDHhttps://video.igem.org/lazy-static/thumbnails/754a11ac-65bf-4aa7-869f-944e51d3cea6.jpgBIT-China: NBP4 (2024)structure of protein NBP4;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/461c02aa-fa63-4754-a230-208747706ac7/0fdb1015-4f76-42ab-82c3-caa1894ab3fb-master.m3u8https://video.igem.org/videos/embed/9E8wutFevjETz6pSHWABDH20012024-10-01T18:06:45.449Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/uXfpfR3x7TH4YJuas1XbBphttps://video.igem.org/lazy-static/thumbnails/a933662c-ec2b-4fb8-b45b-471ea5e200b4.jpgBIT-China: NBP4Ni1 (2024)structure of protein NBP4Ni1;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/ea76aa2c-5f74-4e15-b3ea-2e071c64d885/2b9c2f5e-0094-4af0-bf40-e44d291e9b45-master.m3u8https://video.igem.org/videos/embed/uXfpfR3x7TH4YJuas1XbBp12002024-10-01T18:07:08.384Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/wAJUzUGquyATrbw9DvZcw7https://video.igem.org/lazy-static/thumbnails/ce15bd70-c988-452b-b5ce-73233665ec41.jpgBIT-China: NBP4Ni4 (2024)structure of protein NBP4Ni4;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/f7cbe3df-9dfa-4fb0-ae68-9aa025fc8236/2373eb8c-d370-44aa-8630-44dab5f68d62-master.m3u8https://video.igem.org/videos/embed/wAJUzUGquyATrbw9DvZcw719022024-10-01T18:07:56.382Zstructure of proteinYES2024 TeamsNOhttps://video.igem.org/w/uGWuidrnYPbM4agxwQJTV4https://video.igem.org/lazy-static/thumbnails/9344bdda-4980-456c-9b62-68932d644a55.jpgUESTC-China: Plastic Life (2024) [Chinese]We create songs and videos based on the concept of turning trash into treasure and using ai tools.Click to visit our homepage:https://2024.igem.wiki/uestc-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/e877366e-ad45-41f9-8a47-4df947a83ac1/78b7a3a1-1e01-425e-b2e8-b8cd73a37334-master.m3u8https://video.igem.org/videos/embed/uGWuidrnYPbM4agxwQJTV41180112024-09-30T11:16:48.915ZYES2024 TeamsNOhttps://video.igem.org/w/qGyEErH12Wj5CwJBTPvuo4https://video.igem.org/lazy-static/thumbnails/323e6e46-325b-4aef-abc0-f194bb7d21f1.jpgIOANNINA: Project Design Page text to speech (2024) [English]This is a text to speech audio file for the Project Description Page of our wiki (https://2024.igem.wiki/ioannina/design) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/c80535cc-38a9-41b1-94f1-57e0b5845a07/0c7021de-c2de-49b5-b9c4-b277fd847cc1-master.m3u8https://video.igem.org/videos/embed/qGyEErH12Wj5CwJBTPvuo44165032024-10-01T18:17:55.819ZYES2024 TeamsNOhttps://video.igem.org/w/3zL54ErQTzgEGH47QvE4rQhttps://video.igem.org/lazy-static/thumbnails/bee9290b-eb9b-4084-8132-7d38837396fa.jpgShanghaitech-China: I turned my laboratory into an MC mod. (2024) [Chinese]The International Genetically Engineered Machine (iGEM) competition and synthetic biology, and how to integrate synthetic biology into the game Minecraft. The video introduces the concepts and applications of synthetic biology and explains in detail how to use extractors and sequencers in the game to create paper particles and import gene instructions. It also mentions the role of marker genes and the use of fluorescent protein genes. Finally, the video emphasizes the differences between synthetic biology in the game and in reality and mentions the difficulty of obtaining iron ore.https://static.igem.org/peertube/streaming-playlists/hls/14e8fb1a-07ef-4205-92ca-318f9bccd606/8226fbfc-30f7-498d-acca-3cee873e0015-master.m3u8https://video.igem.org/videos/embed/3zL54ErQTzgEGH47QvE4rQ476072024-09-30T17:47:19.891ZmcmodminecraftYES2024 TeamsNOhttps://video.igem.org/w/npyd8RHiQMhLu4FuLed4Khhttps://video.igem.org/lazy-static/thumbnails/c0d3b269-3f96-4214-b5a5-0ae792b25ed8.jpgAFCM-Egypt: Project Design (2024) [English]This is our scientific project design, animated to the simplest way to deliver the ideahttps://static.igem.org/peertube/streaming-playlists/hls/ad59de43-4c34-463e-9d56-f5e52f6f8fea/61e444ba-23b3-4fe8-bdf4-98b931fd192e-master.m3u8https://video.igem.org/videos/embed/npyd8RHiQMhLu4FuLed4Kh950262024-10-01T10:20:15.559ZAFCM-Egyptreceptordcas9designscientificYES2024 TeamsNOhttps://video.igem.org/w/4c1kaUvfHRq7ei8cM8L6yWhttps://video.igem.org/lazy-static/thumbnails/394a9f58-8c7f-4fef-adbf-e71da0fbcb31.jpgShanghaitech-China: Science fiction steps into reality! A video teaches you how to create glowing...The principles and applications of bioluminescence. Biofluorescence is the process of converting light energy into light energy, while bioluminescence is the conversion of chemical energy into light energy. Fluorescent proteins are representative of biofluorescence and can have their fluorescent properties altered by modifying amino acids. Bioluminescence includes the light emission of bacteria and marine organisms, with some squid having symbiotic luminous bacteria. The glowing mechanism of "blue tears" and fluorescent replicating dragons is also bioluminescence. Research on bioluminescence can lead to the development of new clean light sources.https://static.igem.org/peertube/streaming-playlists/hls/19d4cd17-f3f0-4d7b-a08b-1d5a18bfe9da/102657a6-6655-4ffc-879d-e1118b450be0-master.m3u8https://video.igem.org/videos/embed/4c1kaUvfHRq7ei8cM8L6yW750082024-10-01T13:57:37.239ZYES2024 TeamsNOhttps://video.igem.org/w/oMYXa5JCG2CvAB7TVGysNxhttps://video.igem.org/lazy-static/thumbnails/6dadf20d-0d9e-4d97-bbfa-30884f987001.jpgPatras: comic (2024) [English]comic with voiceover 2024.igem.wiki/patrashttps://static.igem.org/peertube/streaming-playlists/hls/b8949e11-8f65-47b2-8193-45c1f3bae293/142233f4-adf1-4d70-9c27-5623ec6d1726-master.m3u8https://video.igem.org/videos/embed/oMYXa5JCG2CvAB7TVGysNx149062024-09-30T20:58:25.994ZYES2024 TeamsNOhttps://video.igem.org/w/iFqgruhNnTnrwoZySw89aChttps://video.igem.org/lazy-static/thumbnails/7fb82a4c-4fe4-4a78-b618-a4b5cf88b621.jpgPatras: bento (2024) [English]bento manual with voiceover 2024.igem.wiki/patrashttps://static.igem.org/peertube/streaming-playlists/hls/8f2c519e-880d-4d2e-acab-18fddc520006/ec9461f7-765e-4c62-8e2f-710028181c65-master.m3u8https://video.igem.org/videos/embed/iFqgruhNnTnrwoZySw89aC444092024-09-30T20:56:39.492ZYES2024 TeamsNOhttps://video.igem.org/w/heSXmDR52f94sT5PU4A1C2https://video.igem.org/lazy-static/thumbnails/ea23a53e-ba11-4dc3-b245-e2a80853f778.jpgSZPU-China: collaborate (2024) [Chinese]collaboratehttps://static.igem.org/peertube/streaming-playlists/hls/83824a12-70bf-44c5-a687-a9809ded7fe9/5231ca33-d52f-48b7-8463-1a3387e04ddd-master.m3u8https://video.igem.org/videos/embed/heSXmDR52f94sT5PU4A1C254072024-09-30T17:48:35.591ZYES2024 TeamsNOhttps://video.igem.org/w/49Ehz2cqAfwLdYmrJmDiW2https://video.igem.org/lazy-static/thumbnails/5478707b-1023-4dc3-8724-7e4c0fecd483.jpgPeking: The MD trajectory for the whole split enzyme system of TEVp (2024)Peking: The MD trajectory for the whole split enzyme system of TEVp (2024)https://static.igem.org/peertube/streaming-playlists/hls/1980f5e5-1e7b-4260-9a45-28edb874e329/0dcbc9a6-cdd2-4fb3-8138-0c1372034804-master.m3u8https://video.igem.org/videos/embed/49Ehz2cqAfwLdYmrJmDiW2370412024-09-30T13:31:50.742ZYES2024 TeamsNOhttps://video.igem.org/w/mx8n5TGRowcHi7Ygfq2ScJhttps://video.igem.org/lazy-static/thumbnails/24150e09-35bf-4a7b-984f-9aa487ef4ccc.jpgPeking: The trajectory analysis for nTEV (2024)Peking: The trajectory analysis for nTEV (2024)https://static.igem.org/peertube/streaming-playlists/hls/a64f5e35-625a-45ca-a32d-6fab66fcfbd8/14c192ca-dea9-4297-b5f9-861c1dd4b641-master.m3u8https://video.igem.org/videos/embed/mx8n5TGRowcHi7Ygfq2ScJ330122024-09-30T17:49:18.803ZYES2024 TeamsNOhttps://video.igem.org/w/dRhV8QN7E2WiA2ewhYTw51https://video.igem.org/lazy-static/thumbnails/381b54c8-7ee0-433e-94ea-74b2a591df31.jpgPeking: The trajectory analysis for cTEV (2024)Peking: The trajectory analysis for cTEV (2024)https://static.igem.org/peertube/streaming-playlists/hls/680f8898-cf9b-4e08-bb69-df67179e3398/9df979bf-c456-404d-af2f-65ad98e63d6f-master.m3u8https://video.igem.org/videos/embed/dRhV8QN7E2WiA2ewhYTw51170132024-09-30T20:58:49.120ZYES2024 TeamsNOhttps://video.igem.org/w/dcNXF4DA1PRJfYovXUMdc5https://video.igem.org/lazy-static/thumbnails/180f0202-67b4-4538-a900-1eeb6719131c.jpgPeking: Low Oriented Dragging force diffusion (2024) [English]Peking: Low Oriented Dragging force diffusion (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/62d3c913-3050-4122-9207-5dd7003aa61a/6571ea4c-7f54-4916-bdc4-d123b3b6d119-master.m3u8https://video.igem.org/videos/embed/dcNXF4DA1PRJfYovXUMdc5150172024-10-01T10:21:18.936ZYES2024 TeamsNOhttps://video.igem.org/w/8MeXSp9Ha9QXWRkAp3yqkFhttps://video.igem.org/lazy-static/thumbnails/a23a7f49-e440-40eb-aa2c-e157d3a8ee1a.jpgPeking: High Oriented Dragging force diffusion (2024) [English]Peking: High Oriented Dragging force diffusion (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/3f010ba1-83b1-473a-b735-1cb52dea1555/26f9b1e6-a5fd-4576-8acb-175f666d6853-master.m3u8https://video.igem.org/videos/embed/8MeXSp9Ha9QXWRkAp3yqkF220182024-10-01T14:09:57.099ZYES2024 TeamsNOhttps://video.igem.org/w/77usv5hbjbm4fYK5Crf4Dzhttps://video.igem.org/lazy-static/thumbnails/6d1bdb02-d877-434f-b55d-e54cd83cdc57.jpgHKPOLYU: banner_vid (2024)https://2024.igem.wiki/hkpolyu/https://static.igem.org/peertube/streaming-playlists/hls/317ed4ef-78e8-49fb-83d3-240d5d37dbaf/ec8c930d-4595-47d3-bba0-9fcce9f98e87-master.m3u8https://video.igem.org/videos/embed/77usv5hbjbm4fYK5Crf4Dz1609082024-10-01T16:44:28.556ZYES2024 TeamsNOhttps://video.igem.org/w/usSvSAnbBLQtWRji8PeDqWhttps://video.igem.org/lazy-static/thumbnails/bdca0e50-18a4-42be-86dc-5e8b65704f64.jpgPLKLFC: Immunity Clash! Game Trailer (2024) [English]Immunity Clash is a web-based online multiplayer shooting game. You play as immune cells or cancer cells. In order to protect their host, immune cells must shoot antibodies at cancer cells and demolish them all. Meanwhile, cancer cells will try their best to snatch the immune cells' nutrients in order to survive, starve the immune cells, and spread to other organs. To win, one side must kill all of the enemy cells, or be in the majority once the 90-second timer runs out. Find out more about the game in out wiki: https://2024.igem.wiki/plklfc/https://static.igem.org/peertube/streaming-playlists/hls/e68059fb-d3a7-469d-bd09-c2a930f45d72/6a55bbce-e6b3-4026-9862-62b0fec011d4-master.m3u8https://video.igem.org/videos/embed/usSvSAnbBLQtWRji8PeDqW770142024-09-30T21:06:27.775ZYES2024 TeamsNOhttps://video.igem.org/w/ry7noWqzo37ucpP9j3dymThttps://video.igem.org/lazy-static/thumbnails/dca03d70-6b8c-4303-9209-54118129e692.jpgIISER-TVM: Collaboration with REC Chennai (2024) [English]This is a video of our collaboration with REC Chennai.https://static.igem.org/peertube/streaming-playlists/hls/cef0312d-e003-41a8-bd75-ce32c6fdb6fb/6ab0fbbe-a715-4497-85ed-77968a272384-master.m3u8https://video.igem.org/videos/embed/ry7noWqzo37ucpP9j3dymT1840162024-10-01T14:12:55.318ZYES2024 TeamsNOhttps://video.igem.org/w/nTngS1Kz7JtmaHxk4D69LFhttps://video.igem.org/lazy-static/thumbnails/1c15eb82-d986-4a7e-a7cc-d04bbe98197d.jpgHKU-HongKong: Design 17 (2024)This is a video that goes on our wiki engineering page. https://2024.igem.wiki/hku-hongkong/https://static.igem.org/peertube/streaming-playlists/hls/b13bf452-6844-42bb-a5a8-98566fc1b177/7fa215ac-5256-496f-8d8b-2d6a64565988-master.m3u8https://video.igem.org/videos/embed/nTngS1Kz7JtmaHxk4D69LF17032024-10-01T06:17:07.397ZYES2024 TeamsNOhttps://video.igem.org/w/ncykmaE4pjcL8azWVgYD5mhttps://video.igem.org/lazy-static/thumbnails/f4cf7c26-330a-4984-98b7-683862acc086.jpgHKU-HongKong: Design 28 (2024)This is video that goes on our wiki engineering page. https://2024.igem.wiki/hku-hongkong/https://static.igem.org/peertube/streaming-playlists/hls/abad0504-f7d4-4aa1-861a-a740dce01100/f3c9977f-ca67-429f-8c85-7fcef012b6d1-master.m3u8https://video.igem.org/videos/embed/ncykmaE4pjcL8azWVgYD5m30052024-10-01T06:16:48.161ZYES2024 TeamsNOhttps://video.igem.org/w/oJo4GAYGKCbYgCopCrhoJMhttps://video.igem.org/lazy-static/thumbnails/9b5afc28-b252-4a7c-aa83-8927eabcb0b8.jpgHKU-HongKong: Design 2 (2024)This video goes on our wiki engineering page. https://2024.igem.wiki/hku-hongkong/https://static.igem.org/peertube/streaming-playlists/hls/b813e2db-1d90-46c2-860c-d7b12ffaaf19/bbd51720-ba39-4926-925e-22dbea0ffa0a-master.m3u8https://video.igem.org/videos/embed/oJo4GAYGKCbYgCopCrhoJM18022024-10-01T06:16:20.398ZYES2024 TeamsNOhttps://video.igem.org/w/x7srVNfd5RKsr3opkwmnUuhttps://video.igem.org/lazy-static/thumbnails/05ba6560-5154-41d8-86d5-5df574a592d9.jpgUESTC-China: Research video (2024) [Chinese]This is a video of UESTC China's visit to the campus, Here is our wiki link https://2024.igem.wiki/uestc-china/index.html .https://static.igem.org/peertube/streaming-playlists/hls/fbf20f44-7e52-477b-8acb-7e7389842078/d0f3983f-0d54-4a02-851a-fd64114ce5b2-master.m3u8https://video.igem.org/videos/embed/x7srVNfd5RKsr3opkwmnUu120082024-10-01T11:03:01.577ZYES2024 TeamsNOhttps://video.igem.org/w/tHSQx3Mp3KjFBGJEQ5KeJ3https://video.igem.org/lazy-static/thumbnails/7f491960-97be-4f78-8dde-a0d3701f84f5.jpgCNPEM-BRAZIL: HomeAnim (2024)Home animation for the CNPEM.Brazil Team, iGEM 2024.https://static.igem.org/peertube/streaming-playlists/hls/e07f9154-2a7b-441c-b9f0-65a0e6b6f3d2/5ccf360e-cbcf-453d-ac9c-77b0e7f14c8b-master.m3u8https://video.igem.org/videos/embed/tHSQx3Mp3KjFBGJEQ5KeJ380932024-09-30T18:26:51.821ZwikicnpemhomeanimationYES2024 TeamsNOhttps://video.igem.org/w/azP586APWE1tHyfhRPFCHJhttps://video.igem.org/lazy-static/thumbnails/16335352-2804-4502-830c-18de0cc0b547.jpgJLU-NBBMS: Summer Camp (2024) [Chinese]This is a silhouette of Summer Camp's activities in our Education section.https://static.igem.org/peertube/streaming-playlists/hls/4d9acd09-c9cc-4f31-8fe3-78e48c22952c/50386e45-a917-494d-9e3e-b08e7ccca86e-master.m3u8https://video.igem.org/videos/embed/azP586APWE1tHyfhRPFCHJ73032024-09-30T15:34:23.358ZYES2024 TeamsNOhttps://video.igem.org/w/qrRT72De2NHGRT8C1Gy3prhttps://video.igem.org/lazy-static/thumbnails/65229509-4f3c-4fd8-ad09-1a824dbd7a78.jpgJLU-NBBMS: Tumour Week (2024) [Chinese]This is a silhouette of the Tumour Week activities in our education section.https://static.igem.org/peertube/streaming-playlists/hls/c5f7a993-c931-4d58-befc-785101922e97/f929dd2d-a371-4068-918e-7b53429fecdf-master.m3u8https://video.igem.org/videos/embed/qrRT72De2NHGRT8C1Gy3pr330132024-09-30T18:27:23.303ZYES2024 TeamsNOhttps://video.igem.org/w/kecPYtxATz3pqhcFzTXptihttps://video.igem.org/lazy-static/thumbnails/d3b10b24-b312-40b7-baa7-be0e039f587c.jpgUMA-MALAGA: The Mohocytes - A synbio experience - The game (2024) [English]Come and experience synthetic biology firsthand! Here is the trailer for our video game "The Mohocytes: A SynBio Experience." In the game, you will find yourself immersed in the most stressful yet rewarding stages of developing a synthetic biology project, alongside the team leaders and members of The Mohocytes team. You will take part in various tasks, such as genetic design, laboratory work, school presentations, social media posts, and wiki development. Thanks to the support of people from different fields, you’ll achieve your goals in this 40-minute game. We’re sure you’ll learn a lot about synthetic biology and team work! Visit our wiki at https://2024.igem.wiki/uma-malaga/https://static.igem.org/peertube/streaming-playlists/hls/9bb5979f-9f2f-49bf-982c-c1a6d184fa13/d373e81a-484d-4ca3-be15-3c43b9c5e21b-master.m3u8https://video.igem.org/videos/embed/kecPYtxATz3pqhcFzTXpti1060272024-09-30T15:38:02.493ZUMA-MALAGAVideo gameEducationYES2024 TeamsNOhttps://video.igem.org/w/oevC3q9f3hYg7kF19kkAcQhttps://video.igem.org/lazy-static/thumbnails/c4c76951-4ad0-4856-8bb4-88d5be30a896.jpgJLU-NBBMS: Math Salon (2024) [Chinese]This is a silhouette of a Math Salon event from our education section.https://static.igem.org/peertube/streaming-playlists/hls/b40bf970-60b1-49e7-9be1-6bd9550ebc1e/b66000b8-87a6-4c50-953e-9a539770366a-master.m3u8https://video.igem.org/videos/embed/oevC3q9f3hYg7kF19kkAcQ32012024-10-01T06:17:51.680ZYES2024 TeamsNOhttps://video.igem.org/w/akBZNSz9U83xYpspZm6AMuhttps://video.igem.org/lazy-static/thumbnails/6422467c-a58c-45ca-9a78-2e5cf72654ee.jpgAFCM-Egypt: SDG Podcast episode 1 (2024) [English]In our episode, "Building a Better World," we look at the influence and impact which the UN's 17 SDGs-an initiative begun in 2015 to try to solve worldwide issues such as poverty, inequality, and climate change-have been able to affect. We introduce the SDGs as the global framework for sustainable development that calls for countries, organizations, and individuals to interact harmoniously in creating a better world. We have tried to outline the urgency of these goals at the global and local levels with discussions on impediments such as political instability and climate change. Finally, we reiterate that efforts taken collectively and at an individual level are necessary to build a more sustainable and equitable world.https://static.igem.org/peertube/streaming-playlists/hls/4b9f9035-b5d7-4700-9fb2-e68c30a2a57e/426eaa66-ac53-495a-941d-f04f6e6a7ed3-master.m3u8https://video.igem.org/videos/embed/akBZNSz9U83xYpspZm6AMu570592024-09-30T15:59:52.969ZYES2024 TeamsNOhttps://video.igem.org/w/jub3zGGNfP7yj7dy1pumaBhttps://video.igem.org/lazy-static/thumbnails/43c775a7-d348-47a1-abfe-317294949cdf.jpgAFCM-Egypt: SDG Podcast episode 2 (2024) [English]Our Episode on SDG 18, "Fire Safety and Burn Prevention," highlighted so many important points to the critical issue of fires and burn injuries. We showed the importance of fire safety measures in comparison with a large number of injuries, deaths, and a heavy economic burden, especially in low- and middle-income countries. Long-term needs in care of burn survivors, pressures on healthcare systems, as well as fire impact on environmental resources such as air pollution and biodiversity. We stressed on the importance of equitable fire safety measures for vulnerable populations, sustainable practices, and international cooperation to improve prevention, preparedness, and resilience against fire-related risks.https://static.igem.org/peertube/streaming-playlists/hls/95b382f7-23dd-43ca-9f28-95f5544cb1cd/8b3c2ebd-f032-4e51-8b02-c38e639b7020-master.m3u8https://video.igem.org/videos/embed/jub3zGGNfP7yj7dy1pumaB381552024-09-30T18:37:59.144ZYES2024 TeamsNOhttps://video.igem.org/w/rDUSE4Mk43AVTV2tfi2942https://video.igem.org/lazy-static/thumbnails/0bdfcc32-7bd9-4838-a726-1874e6b3ff7c.jpgAFCM-Egypt: SDG Podcast episode 3 (2024) [English]Our episode on SDG 11 was to show how cities should be made inclusive, safe, resilient, and sustainable. In this podcast, we discuss firefighting in regards to urban development. We showed how fire safety should be considered in high-risk environments such as factories. We also mentioned the use of fire-resistant materials for all establishments, early detection systems, and workplace safety. We emphasized the importance of having fire extinguishers, protective equipment, training, and maintenance so risks would be reduced. The discussion moved to include fire safety in urban planning, promotion of green building standards, and sustainability. Finally, community involvement was stressed in instilling the culture of safety and resiliency in urban settings.https://static.igem.org/peertube/streaming-playlists/hls/cfbf9203-cf12-4e46-b055-90630543ab07/abaaa8bf-bab4-4657-a220-00620df2ed59-master.m3u8https://video.igem.org/videos/embed/rDUSE4Mk43AVTV2tfi2942730022024-10-01T11:11:20.791ZYES2024 TeamsNOhttps://video.igem.org/w/aSxt8j2tnXeiusdaziUKJRhttps://video.igem.org/lazy-static/thumbnails/4034b29f-4d84-464c-8450-d233253e01ae.jpgAFCM-Egypt: SONG-H and basic first aid tips for burns (2024) [Arabic]To promote public awareness about burns and first aid procedures, our team decided to make an educational video on social media. This video briefly discusses our project SONG-H and basic first aid tips for burns. Thus, we contacted a content creator on social media named ‘Tarek Mohamed’. We made an integrated video with him, as we provided him with the scientific data about our project and burn first aid. He edited his script to provide this valuable data in an attractive way to reach his large audience on many platforms like Instagram, YouTube, Facebook, and TikTok. We have received some positive feedback from Tarek's followers.https://static.igem.org/peertube/streaming-playlists/hls/4ff0d43f-737c-4019-bcf9-50b427b43ad1/1c071a24-0b3f-4845-b7c7-402d9425798e-master.m3u8https://video.igem.org/videos/embed/aSxt8j2tnXeiusdaziUKJR1090162024-10-01T14:16:32.542ZYES2024 TeamsNOhttps://video.igem.org/w/cyWDnMfKBZymMXsabMc1cqhttps://video.igem.org/lazy-static/thumbnails/1e91123e-cb75-4508-ad06-795d760e150e.jpgCambridge: MNPs_attachment_1 (2024)250 nm Magnetic Nanoparticles bound to S. cerevisiae cells.https://static.igem.org/peertube/streaming-playlists/hls/5dae0070-271b-4bf6-8ac1-d075a635f89e/a86f56c8-3e3f-4c64-a56d-a8635546d441-master.m3u8https://video.igem.org/videos/embed/cyWDnMfKBZymMXsabMc1cq90312024-09-30T16:07:27.195ZYES2024 TeamsNOhttps://video.igem.org/w/wziwPxTmKto2kkp4mgTZTYhttps://video.igem.org/lazy-static/thumbnails/876160f3-6eb8-4fa6-af48-1a10fff34855.jpgCambridge: MNPs_attachment_2 (2024) [English]250 nm Magnetic Nanoparticles bound to S. cerevisiae cells. https://static.igem.org/peertube/streaming-playlists/hls/f7988220-38d7-4531-8dd2-18a838e90c72/9c198415-cdf2-4c2a-853c-799f4b373972-master.m3u8https://video.igem.org/videos/embed/wziwPxTmKto2kkp4mgTZTY10012024-09-30T18:38:07.016ZYES2024 TeamsNOhttps://video.igem.org/w/otFWoJXmvjr7dPQZLkqDTThttps://video.igem.org/lazy-static/thumbnails/15a4e411-2cbc-47c3-b791-891b669e6d1b.jpgAFCM-Egypt: Song "Be safe from fire" (2024) [English]According to WHO the most affected age-group from burn injuries are children from 1-5 years as they are immature and very passionate about touching anything and playing with everything around them so the chance of burn accidents is very high. We believe music is a powerful tool for reaching children. So by creating a catchy song with clear and simple lyrics, we can make fire safety information not only understandable but also memorable, therefore we made (Be safe from fire) song using a tool mentioned in the contribution page to facilitate the future iGEM teams to make the same idea.https://static.igem.org/peertube/streaming-playlists/hls/b606beae-7eff-46fe-b9fc-fb2bd5b6b8a5/ae0a59ff-c914-44d8-9e98-193e349c996f-master.m3u8https://video.igem.org/videos/embed/otFWoJXmvjr7dPQZLkqDTT1260122024-10-01T14:37:41.781ZYES2024 TeamsNOhttps://video.igem.org/w/nZJ2z8eF92zvETzGnPqwSqhttps://video.igem.org/lazy-static/thumbnails/070a9808-0fdf-43d3-a253-7f3d06f42947.jpgHUST-UEVE-UPSaclay: Hardware Workflow (2024) [English]In the video, we talk about the below workflow of our hardware: Assembly; Sample Addition; Culture. https://static.igem.org/peertube/streaming-playlists/hls/b21f34f4-fb4e-420b-a507-2eb496b764f4/dda0fbe6-938b-4d2a-be23-c2972ed5099f-master.m3u8https://video.igem.org/videos/embed/nZJ2z8eF92zvETzGnPqwSq580372024-09-30T16:58:38.166ZWorkflowYES2024 TeamsNOhttps://video.igem.org/w/hDZRBfKANLjb1FDUpfZbfphttps://video.igem.org/lazy-static/thumbnails/e3dcbb27-f86f-49d8-b5ee-29111983257d.jpgHunanU: Safety (2024) [English]HunanU: Safety (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/86e06484-b3e4-4a4a-b85c-ed3d21372a53/bde97ad4-b4b5-425a-8088-10e388a1ca80-master.m3u8https://video.igem.org/videos/embed/hDZRBfKANLjb1FDUpfZbfp4750122024-09-30T20:39:24.502ZYES2024 TeamsNOhttps://video.igem.org/w/gCVVPXuPWX5RpqnUsqdwEohttps://video.igem.org/lazy-static/thumbnails/8eb634aa-f953-4736-939a-9873e1048d04.jpgHeidelberg: fgRNA_neg_272x_slow (2024)Simulating long-range DNA interactions, for more see: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/7ea11707-ace8-44b0-9b6a-6e623474bc0a/0373b7ca-d51b-4aa5-af4d-0e5cff10a99c-master.m3u8https://video.igem.org/videos/embed/gCVVPXuPWX5RpqnUsqdwEo80612024-10-01T17:06:25.176ZDNA long-range interactionsCas staplesMDYES2024 TeamsNOhttps://video.igem.org/w/dGEFiwEVTwYnV1sBYGLMRAhttps://video.igem.org/lazy-static/thumbnails/49c2a523-84ce-4c79-9d75-ef1ff976fae6.jpgHeidelberg: fgRNA_neg_318x_slow (2024)Simulating long-range DNA interactions, for more see: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/66db402a-c94a-4aad-b30b-386b8ccc20b0/baa5320f-4579-4cbd-a182-1ea529568f2b-master.m3u8https://video.igem.org/videos/embed/dGEFiwEVTwYnV1sBYGLMRA70542024-10-01T17:06:15.520ZDNA long-range interactionsCas staplesMDYES2024 TeamsNOhttps://video.igem.org/w/cDZ8yEJj1YG5v1zLZdr3y6https://video.igem.org/lazy-static/thumbnails/2374af87-a3df-479a-b80c-e01fb4a8ca73.jpgHeidelberg: fgRNA_neg_681x_slow (2024)Simulating long-range DNA interactions, for more see: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/5e6240ab-1057-4db6-a992-22a17d2fcc55/390365aa-34c0-460c-8b5f-62959c546704-master.m3u8https://video.igem.org/videos/embed/cDZ8yEJj1YG5v1zLZdr3y670642024-10-01T17:06:04.999ZDNA long-range interactionCas staplesMDYES2024 TeamsNOhttps://video.igem.org/w/jJo5aJFEDfR2ADGosKFkuEhttps://video.igem.org/lazy-static/thumbnails/18529a77-81c0-425a-a8b5-bcf025871f12.jpgAthens: SynBio and Beyond Conference (2024) [English]We are thrilled to announce that the event "SynBio and Beyond | Panhellenic Conference on Synthetic Biology," held on 28 and 29 September 2024 at the NABO Amphitheatre of the Medical School of the National and Kapodistrian University of Athens, was a tremendous success. Organized by iGEM Athens, the conference brought together a vibrant community of scientists, students, and professionals from various disciplines, all united by their passion for Synthetic Biology. The event exceeded expectations in fostering interdisciplinarity and innovation. Attendees had the opportunity to engage with distinguished scientists who delivered thought-provoking talks on the latest advancements in the field, as well as participate in discussions on the practical applications of Synthetic Biology. Topics such as the integration of entrepreneurship into research and the importance of negotiation in advancing scientific endeavors were particularly well received, offering valuable insights to participants. The feedback from attendees was overwhelmingly positive, with many expressing how much value they gained from the networking opportunities and the quality of the discussions. This conference not only strengthened the connection between iGEM and the academic community but also opened new avenues for collaboration and exploration in Synthetic Biology. We would like to extend our heartfelt thanks to everyone who attended and contributed to the event's success, and we look forward to building on this momentum for future conferences and initiatives.https://static.igem.org/peertube/streaming-playlists/hls/97af5623-fca8-4bb0-a768-3a6731b152b2/c3219255-2a37-4924-8200-6e7b303a48e8-master.m3u8https://video.igem.org/videos/embed/jJo5aJFEDfR2ADGosKFkuE32032024-09-30T20:50:32.676ZConferenceand BeyondSynBioiGEM AthensYES2024 TeamsNOhttps://video.igem.org/w/5P9sPDPDx3EziuyCRxzohXhttps://video.igem.org/lazy-static/thumbnails/74f8ae17-dc5c-4f2a-bc1c-e2519cd390d9.jpgHeidelberg: fgRNA_neg_1000x_slow (2024)Simulating long-range DNA interactions, for more see: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/26f9ba1c-51b9-4931-b1d3-8129ff3a57a7/d252f68c-618d-4ff5-9d1b-73c4981a42e9-master.m3u8https://video.igem.org/videos/embed/5P9sPDPDx3EziuyCRxzohX70562024-10-01T17:05:51.209ZDNA long-range interactionsCas staplesMDYES2024 TeamsNOhttps://video.igem.org/w/6yTtdvHYrZB9JmFhDTBDhyhttps://video.igem.org/lazy-static/thumbnails/0527cca6-11b0-4eb0-b7c5-1fdfc9cd4066.jpgHeidelberg: multiplex_pos_40nt_slow (2024)Simulating long-range DNA interactions, for more see: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/2d153686-202b-414f-9abd-20835110953c/b6ca6761-68e1-4156-a7f1-646ecff9229a-master.m3u8https://video.igem.org/videos/embed/6yTtdvHYrZB9JmFhDTBDhy80632024-10-01T17:05:38.380ZDNA long-range interactionsCas staplesMDYES2024 TeamsNOhttps://video.igem.org/w/fKKDLhCLyU95Br1LXtG9n5https://video.igem.org/lazy-static/thumbnails/c065e3d3-04c4-4581-ae11-52c5d03d405b.jpgHeidelberg: multiplex_pos_980nt_slow (2024)Simulating long-range DNA interactions, for more see: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/777bd304-e6a0-4457-9f57-29637b7b5436/e9036066-818a-441c-9fe6-47f1d5323b7f-master.m3u8https://video.igem.org/videos/embed/fKKDLhCLyU95Br1LXtG9n570562024-10-01T17:05:25.535ZDNA long-range interactionsCas staplesMDYES2024 TeamsNOhttps://video.igem.org/w/t4qKSf4YYeaXBCBKt5RDBxhttps://video.igem.org/lazy-static/thumbnails/97c47bdb-1a40-4da0-8d13-4af6ec9c9bf0.jpgHeidelberg: predicted_fgRNA_long_slow (2024)Simulating long-range DNA interactions, for more see: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/db213b54-039e-42ca-aa29-c70614172e49/aeb8f085-4cd1-447a-9954-ff7ed9172bca-master.m3u8https://video.igem.org/videos/embed/t4qKSf4YYeaXBCBKt5RDBx5201102024-10-01T17:05:15.905ZDNA long-range interactionsCas staples MDYES2024 TeamsNOhttps://video.igem.org/w/pJuPhfqjJEogs6B9XdJVBKhttps://video.igem.org/lazy-static/thumbnails/1498e76b-7c1f-43ed-9551-6bd726721bbf.jpgHeidelberg: unstapled_slow (2024)Simulating long-range DNA interactions, for more see: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/c0312f7d-13b9-455c-9fdb-bb1aa1f9a3bd/16d033c9-aadd-4e19-b5e2-583231189afb-master.m3u8https://video.igem.org/videos/embed/pJuPhfqjJEogs6B9XdJVBK701122024-10-01T17:04:29.239ZDNA long-range interactionsCas staplesMDYES2024 TeamsNOhttps://video.igem.org/w/ubXatJyfJPXB7o3Xqv8G1Hhttps://video.igem.org/lazy-static/thumbnails/597ac551-5ea7-47a8-be49-e7e39a2f9110.jpgThessaly: Thaelia - Hardware 3d model animation (2024)A short video of the 3d model of the Thaelia team's hardware.https://static.igem.org/peertube/streaming-playlists/hls/e44750db-182f-4d94-9a21-e61c2cb87971/a0831cfe-f292-40df-84dc-61758472fd5c-master.m3u8https://video.igem.org/videos/embed/ubXatJyfJPXB7o3Xqv8G1H110242024-10-01T11:11:34.405ZYES2024 TeamsNOhttps://video.igem.org/w/6WGR6ZfRe5Eq1a4UUywVQ8https://video.igem.org/lazy-static/thumbnails/7baf9ed5-9078-4a88-ba0d-bf4ebbbbe98a.jpgMcGill: General Public (2024) [English]Description of public outreach for McGill igEM, https://2024.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/3021078d-0ed7-4dce-9f63-09a8f406f80b/e98c2e9c-5b5f-4b5b-b636-20dcccd3ebf1-master.m3u8https://video.igem.org/videos/embed/6WGR6ZfRe5Eq1a4UUywVQ8229022024-09-30T17:32:37.334ZYES2024 TeamsNOhttps://video.igem.org/w/ofbthcdkqe7MKKowgVajPqhttps://video.igem.org/lazy-static/thumbnails/a6e82c68-4b8b-456d-a127-9fdcd8d079e9.jpgUOregon: What is a bacteria? (2024) [English]What is a bacteria? Learn more about where bacteria come from and what makes them up. https://static.igem.org/peertube/streaming-playlists/hls/b423ea76-7cc2-4abf-86a2-ae404de5bade/f174ac06-e552-4512-a14a-d782d5b0f0c2-master.m3u8https://video.igem.org/videos/embed/ofbthcdkqe7MKKowgVajPq135012024-09-30T18:16:19.046ZYES2024 TeamsNOhttps://video.igem.org/w/wNtujNZK8CrxxBZBN1vAcMhttps://video.igem.org/lazy-static/thumbnails/f4d6c02c-3eb3-466c-852b-f1d21d7b20b2.jpgFreiburg: Liposome production (2024) [English]Hey we are the iGEM Team Freiburg 2024. In this video, we’ll walk through the production of Liposomes using the PVA method followed by extrusion. This is our Wiki https://2024.igem.wiki/freiburg/https://static.igem.org/peertube/streaming-playlists/hls/f96f5042-ad62-46e6-83a0-c8471bce58fb/08086765-ce18-484f-b0b5-2ddb64d9610e-master.m3u8https://video.igem.org/videos/embed/wNtujNZK8CrxxBZBN1vAcM2960322024-10-01T06:25:41.318ZextrusionliposomeYES2024 TeamsNOhttps://video.igem.org/w/fBW2fqXc1DWBuTQbumxMKMhttps://video.igem.org/lazy-static/thumbnails/8f132957-2aa1-40ac-bb78-50c6404c08ba.jpgAFCM-Egypt: 3D Model lab (2024)A 3D Model Labhttps://static.igem.org/peertube/streaming-playlists/hls/766443e0-4b07-4fb2-a1f8-388860e05457/f8be5cc3-3d64-4a28-8859-ea000cd44f75-master.m3u8https://video.igem.org/videos/embed/fBW2fqXc1DWBuTQbumxMKM30152024-09-30T18:22:13.120ZYES2024 TeamsNOhttps://video.igem.org/w/2ypMkmiAF25ggArhzdyycfhttps://video.igem.org/lazy-static/thumbnails/ccd5aec5-8743-4bfe-8734-eb6a98ab7346.jpgUNILausanne: VESPA TEAM: Protein Bait Container Integrated with Image Recognition Software (2024)This video is presented by the VESPAI unilLausanne 2024 team. It showcases our hardware: a box equipped with image recognition software that allows only Asian hornets to access the protein bait. Link to our wiki: https://2024.igem.wiki/unilausanne Image recognition software is from the following publically available project: https://github.com/andrw3000/vespaihttps://static.igem.org/peertube/streaming-playlists/hls/0c9f9861-ad96-4a69-bd13-20569dd530ec/2e5036c8-8b18-430e-8874-2f927a0e5670-master.m3u8https://video.igem.org/videos/embed/2ypMkmiAF25ggArhzdyycf200442024-09-30T18:31:05.600ZYES2024 TeamsNOhttps://video.igem.org/w/r8FJzkdnep6xFwyJZDdRcThttps://video.igem.org/lazy-static/thumbnails/6bdda2f9-a97d-4469-aacb-bfad69de0730.jpgECUST: home11 (2024) [English]https://2024.igem.wiki/ecust/https://static.igem.org/peertube/streaming-playlists/hls/cb8728ec-f58c-4177-9806-fab140c5b2e5/fe2a6889-cbfa-4701-885e-9dd1fb2224f0-master.m3u8https://video.igem.org/videos/embed/r8FJzkdnep6xFwyJZDdRcT18002024-10-01T11:11:59.080ZYES2024 TeamsNOhttps://video.igem.org/w/oUMVD32g9BUaBCQVdJxvyHhttps://video.igem.org/lazy-static/thumbnails/9f663b6e-b775-458e-a9dd-e3897b391c66.jpgECUST: Hardware (2024) [English]https://2024.igem.wiki/ecust/https://static.igem.org/peertube/streaming-playlists/hls/b988075a-8158-418f-8c20-db776bfb40b5/7bd6a817-1ce9-4504-8869-88ec4bd3fc0c-master.m3u8https://video.igem.org/videos/embed/oUMVD32g9BUaBCQVdJxvyH85082024-10-01T14:17:22.320ZYES2024 TeamsNOhttps://video.igem.org/w/cDoUFZro6CKmwYSzrh3KvGhttps://video.igem.org/lazy-static/thumbnails/f5294eb1-bc6e-4257-bc48-8d33bdb10316.jpgStony-Brook: Ago2 and miRNA-326 equilibriated in water (2024)The crystallographic file of human argonaute protein (Ago2) and miRNA-326 was docked using Autodock Vina. This video was generated using GROMACS by following the "Lyzozyme in Water" tutorial found on http://www.mdtutorials.com/gmx/. https://2024.igem.wiki/stony-brook/https://static.igem.org/peertube/streaming-playlists/hls/5e4d299e-aa7b-4b9e-ab8f-e183b62ee4f6/5ee33371-0425-4288-affc-3d5b20d2db74-master.m3u8https://video.igem.org/videos/embed/cDoUFZro6CKmwYSzrh3KvG4562024-09-30T19:28:46.290ZYES2024 TeamsNOhttps://video.igem.org/w/tdhAJ7drCuVan6Btmakitmhttps://video.igem.org/lazy-static/thumbnails/06a6a99b-58cb-439a-a92e-c4a6823a5abc.jpgWashington: Protein Design (2024) [English]In collaboration with Arizona State University(ASU) iGEM, we dive into an overview of what protein design is and how different tools and techniques are used in the process. Drawing on ASU’s current project, the video also explores how new approaches in protein design allow for accelerating innovation and continued advancement. Read more on our wiki: https://2024.igem.wiki/washington/education. Video created by Alex Gratch. Video edited by Katherine Laihttps://static.igem.org/peertube/streaming-playlists/hls/dc5de5fc-aca4-404d-9666-fd11d6b8c7de/5ff11b3b-a081-41d4-be1d-1bc317c02d93-master.m3u8https://video.igem.org/videos/embed/tdhAJ7drCuVan6Btmakitm622032024-10-01T08:07:09.780ZYES2024 TeamsNOhttps://video.igem.org/w/ba9skDJFs89RyCLLiwVaCThttps://video.igem.org/lazy-static/thumbnails/f11477ae-ae92-4caf-a601-76a8be94229e.jpgBielefeld-CeBiTec: Air-liquid interface (ALI) culture of human nasal epithelial cells (hNECs) (2024)An air-liquid interface culture of human nasal epithelial cells, which have undergone differentiation into ciliated epithelium, may be employed as an example. The formation of ciliated epithelium is evident from the 'flickering'. This phenomenon involves the rhythmic movement of numerous cilia. Additionally, the uniform direction and tempo of cell debris movement, in contrast to the random movement observed in the absence of ciliated epithelium, provides further evidence of its presence.https://static.igem.org/peertube/streaming-playlists/hls/52424a62-745a-454b-bff6-d61a13a5f967/ff4ed4c2-71c2-46c8-a7d6-1ea0f5dd8eb7-master.m3u8https://video.igem.org/videos/embed/ba9skDJFs89RyCLLiwVaCT33072024-09-30T20:18:39.904ZYES2024 TeamsNOhttps://video.igem.org/w/4Gjw8XjwMhDc25UBQMzrg3https://video.igem.org/lazy-static/thumbnails/da7f6edb-2f91-44ef-ad0e-f99016665825.jpgDuke: Constitutive GFP Live-Cell Timelapse (2024)Live-cell microscopy movie for constitutive GFP expression driven by BBa_K5198108 in HEK293T cells. The gray channel is provided by differential image contrast (DIC) and the green channel is provided by GFP emission intensity. HEK293T cells are shown growing and dividing as they express GFP. Find more at: https://2024.igem.wiki/duke/expression.https://static.igem.org/peertube/streaming-playlists/hls/1dec9473-d62d-48b4-9dd6-8dd59ae553a4/c3d2e7f0-edaf-4090-9170-e9b90f791159-master.m3u8https://video.igem.org/videos/embed/4Gjw8XjwMhDc25UBQMzrg390262024-09-30T20:16:40.880ZGFPHEK293TCellsMicroscopyYES2024 TeamsNOhttps://video.igem.org/w/onfZJhyppDeka4XonPT8nYhttps://video.igem.org/lazy-static/thumbnails/91533e7b-3244-44dd-82cf-1962367f4e0f.jpgDuke: SynNotch-Activation Live-Cell Timelapse (2024)Live-cell microscopy movie for ATLAS cell activation. HEK293T cells are transfected with anti-CD19 synNotch (BBa_K5198013) and a BFP activation reporter plasmid (https://www.addgene.org/79130/). HEK cells are shown in co-culture with Raji CD19+ cells to activate synNotch. Gray channel is provided by DIC and false coloring comes from fluorescence intensities. BFP emission intensity was mapped to green and mCherry emission intensity was mapped to red. Thus, red cells show low activation and green cells show high activation. Uncolored adherent cells are HEK293T cells and uncolored suspension cells are Raji cells. Find more at: https://2024.igem.wiki/duke/expressionhttps://static.igem.org/peertube/streaming-playlists/hls/b520e930-0bb6-4339-9c6d-fa1df46c1efe/7739a9ba-c36c-49f2-b3e9-f2f41ee6642e-master.m3u8https://video.igem.org/videos/embed/onfZJhyppDeka4XonPT8nY120132024-09-30T20:56:23.576Zgene expressionmicroscopy hek293synnotchYES2024 TeamsNOhttps://video.igem.org/w/1QT9A3e42WPDN6nZfqLtYVhttps://video.igem.org/lazy-static/thumbnails/e074879c-7a44-4215-b8cb-a4859a5173a6.jpgBielefeld-CeBiTec: Apical-out airway organoids (AOAO) of human nasal epithelial cells (hNECs) (2024)Apical-out airway organoids have been developed from human nasal epithelial cells. The formation of cilia with successful differentiation allows the organoids to move in the medium. The organoids can be seen swimming through the medium.https://static.igem.org/peertube/streaming-playlists/hls/06d338d9-47bb-443c-b3dd-a3f263f87491/b7f01517-659e-4f89-ba8d-e5752c033638-master.m3u8https://video.igem.org/videos/embed/1QT9A3e42WPDN6nZfqLtYV9002024-09-30T20:51:41.947ZYES2024 TeamsNOhttps://video.igem.org/w/8K1sS31Q4hD2Nbjqgp5Br6https://video.igem.org/lazy-static/thumbnails/bcd5c07d-aa70-47a2-b52d-d36a12fb8e1b.jpgULethbridge: PbEL04_400ns_40C_skyblue (2024)PbEL04 run at 40C for 400ns using AMBER. Link to Ulethbridge iGEM 2024 https://2024.igem.wiki/ulethbridge/ https://static.igem.org/peertube/streaming-playlists/hls/3eb13cf7-c905-456f-89d1-3e30704d800b/7c2f963d-91bc-4481-beee-cb59e0a70c33-master.m3u8https://video.igem.org/videos/embed/8K1sS31Q4hD2Nbjqgp5Br6270112024-09-30T20:45:32.442ZYES2024 TeamsNOhttps://video.igem.org/w/uakpHGXyCvvQFKhGKbKVjYhttps://video.igem.org/lazy-static/thumbnails/4642c2a2-4755-4a35-a337-7923b6a68c71.jpgBielefeld-CeBiTec: Sitcom Team Presentation (2024) [English]Our team introduction video we made for the iGem MeetUp 2024 in Münster. https://static.igem.org/peertube/streaming-playlists/hls/e40d89a0-2461-421c-a75c-92b3b238e0f8/4b61eb1c-b890-476c-a6a0-0aef8f85d0f6-master.m3u8https://video.igem.org/videos/embed/uakpHGXyCvvQFKhGKbKVjY1010832024-10-01T08:13:07.386Zteam YES2024 TeamsNOhttps://video.igem.org/w/3KNMSviTRvaKuNzQjxDZ7Rhttps://video.igem.org/lazy-static/thumbnails/8b995edb-3c27-4e2e-bce8-b98c3a8a617f.jpgBielefeld-CeBiTec: Interview with Max Beckmann (2024) [English]Max's input as a cystic fibrosis (CF) patient directly influenced several key aspects of our project. After learning about the daily challenges of living with CF, we adapted our gene therapy approach to target the lungs, aligning our treatment with patient needs. His insights on the shortcomings of existing therapies strengthened our focus on developing a more effective solution.https://static.igem.org/peertube/streaming-playlists/hls/16501867-a687-4205-949a-51ead876e109/5ae66252-070c-4a58-b621-09374cebccd6-master.m3u8https://video.igem.org/videos/embed/3KNMSviTRvaKuNzQjxDZ7R8690232024-10-01T11:22:42.907Zcystic fibrosisinterviewYES2024 TeamsNOhttps://video.igem.org/w/vNqTC8G4VCqNXX5WjSeng5https://video.igem.org/lazy-static/thumbnails/50ca400f-2d6c-4020-921c-667a57679e24.jpgULethbridge: pbel04_35C_400ns_skyblue (2024)PbEL04 AMBER MD simualtion at 35C run for 400 ns. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/f15492d7-5f06-4422-9ed9-522b40923e46/086a9842-35d2-4546-8477-60d88fea063d-master.m3u8https://video.igem.org/videos/embed/vNqTC8G4VCqNXX5WjSeng5270132024-09-30T21:05:29.479ZYES2024 TeamsNOhttps://video.igem.org/w/pu9e1KRgaj36TxTtrvAZvRhttps://video.igem.org/lazy-static/thumbnails/f13a646a-8fdd-44d9-b137-954bbce0cea6.jpgULethbridge: pbel04_25C_400ns_skyblue (2024)PbEL04 AMBER MD simulation at 25C for 400 ns. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/be30154b-80a7-4bd3-be23-f03bf9df55c7/77a4e797-dcae-4235-b8b5-da5c20bf10a3-master.m3u8https://video.igem.org/videos/embed/pu9e1KRgaj36TxTtrvAZvR270142024-10-01T08:13:48.238ZYES2024 TeamsNOhttps://video.igem.org/w/okWWzavVRLmkWNsvgWvTBmhttps://video.igem.org/lazy-static/thumbnails/0dcb0738-4f74-4a8d-8ee1-1698a6db9dfc.jpgAFMU-China: Team Introduction (2024)We are AFMU-China2024, Come with us! Here is our wiki: https://2024.igem.wiki/afmu-china/https://static.igem.org/peertube/streaming-playlists/hls/b4f20a69-e118-4a14-b4dd-e183d7855eb6/550d5fb6-752c-4f4b-b07b-7117b1c54d40-master.m3u8https://video.igem.org/videos/embed/okWWzavVRLmkWNsvgWvTBm380602024-09-30T21:21:31.296ZYES2024 TeamsNOhttps://video.igem.org/w/mAqXjKmSECLsSyx6AJREBjhttps://video.igem.org/lazy-static/thumbnails/c080ed4d-a325-4d40-b9bd-c745ca26090a.jpgULethbridge: Pbel04 (2024)PbEL04 Introduction Movie. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/a6c57092-8237-4436-abfb-ca09c187c1a0/50435e79-6607-4d5f-b4c3-55aaab8030f9-master.m3u8https://video.igem.org/videos/embed/mAqXjKmSECLsSyx6AJREBj18092024-10-01T11:22:52.535ZYES2024 TeamsNOhttps://video.igem.org/w/agjrQ9NWgbpGapcyPuH49qhttps://video.igem.org/lazy-static/thumbnails/23204914-74d9-43ec-9b02-cf95f7411633.jpgAFCM-Egypt: Description (2024) [English]AFCM-Egypt: Description (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/4b05c597-49a4-407f-ae02-8c45875e945c/5ec7680a-f29c-42f5-9ce1-2ebc9cfc4521-master.m3u8https://video.igem.org/videos/embed/agjrQ9NWgbpGapcyPuH49q35022024-10-01T14:17:52.066ZSONG-HBurnsAFCM-EgyptdescriptionYES2024 TeamsNOhttps://video.igem.org/w/ri4oaT4gMaPE2ttjJCwBTnhttps://video.igem.org/lazy-static/thumbnails/cd34df2c-a0bf-4581-a8e7-5e967a0cd7fd.jpgAFMU-China: ba duan jin, a Chinese Kung Fu (2024) [Chinese]Have u ever heard "ba duan jin"? It serves as the foundation of Chinese Kung Fu, offering numerous benefits such as enhancing physical fitness, lowering blood lipids, reducing obesity risk, and promoting a longer lifespan. Join us today!https://static.igem.org/peertube/streaming-playlists/hls/ccd631e9-ccc2-4b33-a648-3a10769c0bbf/e2b95ecf-5745-4400-8a24-db4fe4f8e124-master.m3u8https://video.igem.org/videos/embed/ri4oaT4gMaPE2ttjJCwBTn6710102024-09-30T21:52:52.758ZYES2024 TeamsNOhttps://video.igem.org/w/dd1btpJB2nZ3gYePXK4izehttps://video.igem.org/lazy-static/thumbnails/e12ad757-9c32-44e2-878e-5bf095f4d092.jpgBKEA: Interview with a Local (1) (2024) [English]The first interview with a local in Morocco about the problems with kidney stones. Learn more about kidney stone on our website: https://2024.igem.wiki/bkea/ https://static.igem.org/peertube/streaming-playlists/hls/62dab34f-b3ba-4762-8c16-b43520e558b3/59c1370c-7c6a-4d65-8a7c-b28fce0776eb-master.m3u8https://video.igem.org/videos/embed/dd1btpJB2nZ3gYePXK4ize110002024-09-30T21:38:56.387ZYES2024 TeamsNOhttps://video.igem.org/w/w4FNoqGMUfWqZ19rCFWBAThttps://video.igem.org/lazy-static/thumbnails/177fe46c-e950-41d0-ad00-72ef4d2fd391.jpgULethbridge: PbEL04_Cys_analysis (2024)Cysteine Analysis of PbEL04 residues. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/f375eb28-abf0-408e-8415-f139b0fd2a73/2663a5ff-f631-4eed-a240-057cc5cf3139-master.m3u8https://video.igem.org/videos/embed/w4FNoqGMUfWqZ19rCFWBAT7002024-10-01T14:18:07.384ZYES2024 TeamsNOhttps://video.igem.org/w/f772BJjLKzLz1tZHpQZfm7https://video.igem.org/lazy-static/thumbnails/afe7dd78-aaec-438f-8c98-c7a9899d0919.jpgULethbridge: Nanobody intro Movie (2024)Introduction Movie of the Nanobody. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/723a1e60-a48e-42bb-9379-e1512c5bb98e/d88a101b-4f57-498c-97e0-056a731baef9-master.m3u8https://video.igem.org/videos/embed/f772BJjLKzLz1tZHpQZfm717082024-10-01T14:37:54.165ZYES2024 TeamsNOhttps://video.igem.org/w/7dRX6PSpyUbiUH39FjBehmhttps://video.igem.org/lazy-static/thumbnails/88cfe7de-7358-4919-a70d-bbad1d7beca9.jpgULethbridge: Nanobody Model 5 (2024)Model of PbEL04 and Nanobody Model 5. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/32628a3c-8280-4ca6-b83c-8ab4d91bc480/9850c669-0046-44ba-8f30-bdc684d3cba0-master.m3u8https://video.igem.org/videos/embed/7dRX6PSpyUbiUH39FjBehm27072024-10-01T16:44:45.869ZYES2024 TeamsNOhttps://video.igem.org/w/ooedSqgyqgmu3DUE8Wq439https://video.igem.org/lazy-static/thumbnails/21a1d75c-e1ba-4441-b268-a9badfc1e63b.jpgULethbridge: Nanobody Model 5 Contacts (2024)Nanobody and PbEL04 Model 5 contact analysis. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/b5438fcd-e439-489e-972c-4e1ea7209ce8/ed380cc3-b303-4450-9bb3-c070b93762b9-master.m3u8https://video.igem.org/videos/embed/ooedSqgyqgmu3DUE8Wq43914042024-10-01T17:06:42.879ZYES2024 TeamsNOhttps://video.igem.org/w/1BDBXThatCua9ciqwkBeqdhttps://video.igem.org/lazy-static/thumbnails/89b502a7-98d2-4aa2-9081-f622f9e1de74.jpgULethbridge: Nanobody Model 3 (2024)Nanobody and PbEL04 Model 3. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/04fa3754-b29e-4916-bb90-3447aeaa2c38/d25af782-5961-453f-9334-c5f45d5d5718-master.m3u8https://video.igem.org/videos/embed/1BDBXThatCua9ciqwkBeqd25072024-10-01T17:35:12.554ZYES2024 TeamsNOhttps://video.igem.org/w/7i15DaRcD2wkTPrTARp7r2https://video.igem.org/lazy-static/thumbnails/4155b8c6-10f2-4589-9008-46671d15ecc1.jpgBKEA: Interview with a Local (2) (2024) [English]The second interview with a local from Morocco about kidney stones. Read more about it on our website: https://2024.igem.wiki/bkea/https://static.igem.org/peertube/streaming-playlists/hls/32f6867e-0bbb-45c9-ae7c-dc43f77a7bab/8f89b8ba-a5b8-4723-9fcf-cf520b4f7505-master.m3u8https://video.igem.org/videos/embed/7i15DaRcD2wkTPrTARp7r2211012024-09-30T22:25:12.360ZYES2024 TeamsNOhttps://video.igem.org/w/pMdJh8Wm5ixf4VxPgbh4TRhttps://video.igem.org/lazy-static/thumbnails/deff880c-3d09-43a8-9c9b-3504d08e9970.jpgULethbridge: Nanobody Model 3 Contacts (2024)Nanobody and PbEL04 Model 3 Contact Analysis. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/c09280d9-3932-4a3c-9f56-291025df8aeb/e0e60e36-98ca-43b9-a69f-b9d9b532f0af-master.m3u8https://video.igem.org/videos/embed/pMdJh8Wm5ixf4VxPgbh4TR14052024-10-01T18:00:25.525ZYES2024 TeamsNOhttps://video.igem.org/w/wLXp4gV4mDA5MLRYHTrjtdhttps://video.igem.org/lazy-static/thumbnails/8d6fdfa9-359a-43ac-989e-973f6a094c0b.jpgULethbridge: Nanobody Model 1 (2024)Nanobody and PbEL04 Model 1. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/f939068e-dea1-464a-b1cd-2731c8577fea/ac70e92e-f651-4c2f-a41a-d3977bd4f3ac-master.m3u8https://video.igem.org/videos/embed/wLXp4gV4mDA5MLRYHTrjtd27082024-10-01T18:01:14.928ZYES2024 TeamsNOhttps://video.igem.org/w/cWp3ew3CAKGmSjahABvmSYhttps://video.igem.org/lazy-static/thumbnails/033294ad-0426-4c83-9c2b-58de4ccbbf6e.jpgULethbridge: Nanobody Model 1 Contacts (2024)Nanobody and PbEL04 Model 1 Contact Analysis. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/60ace306-ae63-4e2f-b634-3fdbf34fb9d4/34e12dcc-823f-4841-abf2-bdd0acc3b32e-master.m3u8https://video.igem.org/videos/embed/cWp3ew3CAKGmSjahABvmSY140102024-10-01T18:01:29.381ZYES2024 TeamsNOhttps://video.igem.org/w/dfoKyHKf3SCxES7pQpsjQfhttps://video.igem.org/lazy-static/thumbnails/ae9d2724-97ff-467d-baa2-afddec812478.jpgULethbridge: FAB Antibody Intro Movie (2024)Introduction Movie of FAB antibody Fragment. Ulethbirdge Wiki:https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/633018fa-25f0-48f8-ae7e-1e5da6a5d2b6/621820cf-4dbc-40fd-9e69-128ee2d1938f-master.m3u8https://video.igem.org/videos/embed/dfoKyHKf3SCxES7pQpsjQf17092024-10-01T18:02:57.030ZYES2024 TeamsNOhttps://video.igem.org/w/db3kbfXzADkAboRA6F2gWJhttps://video.igem.org/lazy-static/thumbnails/69acac40-cea7-46b1-b196-8f07f03721ee.jpgULethbridge: PbEL04_35C_Gromacs (2024)PbEL04 MD simulation at 35C using GROMACShttps://static.igem.org/peertube/streaming-playlists/hls/629489b5-74a3-494a-84df-d6d54cb4963a/0e5def62-5aaa-49e3-900a-61d2d6226605-master.m3u8https://video.igem.org/videos/embed/db3kbfXzADkAboRA6F2gWJ4052024-10-01T18:03:20.954ZYES2024 TeamsNOhttps://video.igem.org/w/9pcFxdRGcBM4H47872AzW4https://video.igem.org/lazy-static/thumbnails/a762f5e1-9d67-4e8b-9a5e-a8777cb1702e.jpgMunich: gRNA overlap in progRAM (2024) [English]The video shows the mechanism of gRNA overlap in our project progRAM Animation: Raya Moyankovahttps://static.igem.org/peertube/streaming-playlists/hls/44066a43-59b1-4847-aa02-c026921de1c3/2a8f90cc-844b-488f-88e7-e2b01f01abec-master.m3u8https://video.igem.org/videos/embed/9pcFxdRGcBM4H47872AzW45501812024-09-30T21:59:24.238ZYES2024 TeamsNOhttps://video.igem.org/w/eowATgigr4rK81NyR7cG6ohttps://video.igem.org/lazy-static/thumbnails/90e22352-2749-40a9-a4af-696a43778d24.jpgUMA-MALAGA: Brilliant minds - Empowering diversity (2024) [Spanish]Is the Need-based response methodology suitable for including people with intellectual disabilities in science?https://static.igem.org/peertube/streaming-playlists/hls/6c6c063a-8cf3-4589-a079-43ec9c0d6590/f9dcce90-3560-4e80-a07f-8f93ec69a18c-master.m3u8https://video.igem.org/videos/embed/eowATgigr4rK81NyR7cG6o1420202024-09-30T23:41:52.153Zlearning by doingNeed-based responseintelectual disabilityinclusionYES2024 TeamsNOhttps://video.igem.org/w/xsK3pcmeqVWKGyyaji8xdvhttps://video.igem.org/lazy-static/thumbnails/e976a5ab-4b48-474d-a1cb-ddb65bd080ff.jpgWaterloo: Team Pictures (2024)Brought to you by the Waterloo iGEM Team! https://2024.igem.wiki/waterloo/ https://static.igem.org/peertube/streaming-playlists/hls/fec72963-4abe-48a0-b360-05353de818d9/74658fa5-5800-4700-84f8-f91a3564a64f-master.m3u8https://video.igem.org/videos/embed/xsK3pcmeqVWKGyyaji8xdv780842024-09-30T23:31:40.527ZYES2024 TeamsNOhttps://video.igem.org/w/dY61uUWApQLMqY5Nnr7wu4https://video.igem.org/lazy-static/thumbnails/35fabd01-03a3-4825-aae9-f5812f4c8636.jpgAFMU-China: A science podcast for T2DM (2024) [Chinese]AFMU-China & BUCT-China: How to fist towards T2DMhttps://static.igem.org/peertube/streaming-playlists/hls/690266d5-8d74-47ec-9a2f-aa93270a7fb3/3a0c2ca8-1b0b-4ce1-93ec-633c5f96027e-master.m3u8https://video.igem.org/videos/embed/dY61uUWApQLMqY5Nnr7wu44430172024-10-01T08:15:39.783ZYES2024 TeamsNOhttps://video.igem.org/w/q8C64SuAB1Z8U2kxUFE6iyhttps://video.igem.org/lazy-static/thumbnails/cf283cbd-2c29-465a-9340-e0a2717f66fd.jpgFreiburg: DLS Measurement of Lipid-based Nanocarriers (2024) [English]Hey in this Video we measure Lipid-based Nanocarriers with DLS. Our Wiki is https://2024.igem.wiki/freiburg/https://static.igem.org/peertube/streaming-playlists/hls/c36bc61b-4b52-44ac-a111-de2216e61fce/d78c7bbc-e5ed-4f55-815a-7e20f500a7c3-master.m3u8https://video.igem.org/videos/embed/q8C64SuAB1Z8U2kxUFE6iy1510122024-09-30T23:33:39.775ZYES2024 TeamsNOhttps://video.igem.org/w/6oCtV4A4k257vn6SDv45twhttps://video.igem.org/lazy-static/thumbnails/c39758d3-9d25-449c-9fc5-f44070aa3a8f.jpgMunich: State Switching of progRAM Readout System (2024)This animation shows how the deamination adenosine as part of one start codon in our progRAM writing tape changes the expression of a fluorescent protein. Animation: Raya Moyankovahttps://static.igem.org/peertube/streaming-playlists/hls/2ba689e3-ed47-4ea9-ae75-a9d9a3e88034/529c92c5-71c5-456f-b8fc-3f83194f22b9-master.m3u8https://video.igem.org/videos/embed/6oCtV4A4k257vn6SDv45tw18022024-10-01T04:16:30.130ZYES2024 TeamsNOhttps://video.igem.org/w/93waxoqgjo3FWWnpyscs75https://video.igem.org/lazy-static/thumbnails/930dfd09-2f4e-4560-90ac-4c770ce2c541.jpgTHISDL-United: Interview with Prof. Gupta (2024) [English]Interview with Professor Bhagwati Gupta from MacMaster University, https://2024.igem.wiki/thisdl-unitedhttps://static.igem.org/peertube/streaming-playlists/hls/41232fb4-f7bc-4a8d-a2d9-b5119c2428a0/e5fc80ff-1f71-452e-ae11-33aef9fa1d9f-master.m3u8https://video.igem.org/videos/embed/93waxoqgjo3FWWnpyscs751097062024-10-01T14:18:59.244Zhuman-practicesYES2024 TeamsNOhttps://video.igem.org/w/ehRw7UoREDPEFVNeFtADLhhttps://video.igem.org/lazy-static/thumbnails/868cf625-03e0-498b-bd5e-5a12b719b4eb.jpgthessaloniki: Project Reveal (2024)thessaloniki: Project Reveal (2024)https://static.igem.org/peertube/streaming-playlists/hls/6ba13862-395b-49bc-8e41-ea7c28ce14dc/c9be1bbc-fcfd-4a11-a5c0-eac9a33bc470-master.m3u8https://video.igem.org/videos/embed/ehRw7UoREDPEFVNeFtADLh1601662024-10-01T03:47:34.189ZYES2024 TeamsNOhttps://video.igem.org/w/6SNe78voVKRaQYMSG9J2EXhttps://video.igem.org/lazy-static/thumbnails/4d398feb-b63a-4e2c-af54-1c2598e5b1f6.jpgULethbridge: PbEL04 and Nanobody GRAMM results (2024)GRAMM docking simulations of top 5 results obtained for PbEL04 and Nanobody. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/2f955e9b-7b80-40cd-af93-3c3a4ec4af07/072bf0be-c7c4-41fc-a9b6-35eaf787501a-master.m3u8https://video.igem.org/videos/embed/6SNe78voVKRaQYMSG9J2EX82092024-10-01T18:04:19.408ZYES2024 TeamsNOhttps://video.igem.org/w/se78BmaLFxWSu5rsy1gXUvhttps://video.igem.org/lazy-static/thumbnails/43123272-212d-48e5-8446-026ee34581b9.jpgULethbridge: PbEL04 and FAB Antibody GRAMM results (2024)GRAMM Docking Sim results of PbEL04 and FAB antibody. Ulethbridge Wiki: https://2024.igem.wiki/ulethbridge/https://static.igem.org/peertube/streaming-playlists/hls/d4620d7a-c0b3-4f6a-8979-31d0b084e7f9/0cacfcf3-ebf5-4afb-8716-a8da8843d134-master.m3u8https://video.igem.org/videos/embed/se78BmaLFxWSu5rsy1gXUv76082024-10-01T18:05:24.884ZYES2024 TeamsNOhttps://video.igem.org/w/ehp1xSZBYarpF16tDJMJCLhttps://video.igem.org/lazy-static/thumbnails/49c0fe04-f70a-4fca-982c-decb6c8a898d.jpgMunich: progRAM overlapping gRNA part1 (2024) [English]The video shows the mechanism of gRNA overlaping in progRAM, part 1https://static.igem.org/peertube/streaming-playlists/hls/6b90e20b-dec2-4797-b85b-d0c61d19b544/236efe7e-edbd-4c9b-b163-91873f0b6a76-master.m3u8https://video.igem.org/videos/embed/ehp1xSZBYarpF16tDJMJCL5042024-10-01T09:28:26.443ZYES2024 TeamsNOhttps://video.igem.org/w/r6rszuPqdE8LH1NzNfBmXShttps://video.igem.org/lazy-static/thumbnails/951f6079-cc41-4c92-9a62-57b7fc3ec9b3.jpgMunich: progRAM overlapping gRNA part2 (2024) [English]The video shows the mechanism of gRNA overlapping in progRAM, part2https://static.igem.org/peertube/streaming-playlists/hls/cb36dfe2-146e-4832-a772-4634021723d0/682c7e9d-3b9b-4879-9fe0-f9c7969d2d94-master.m3u8https://video.igem.org/videos/embed/r6rszuPqdE8LH1NzNfBmXS7042024-10-01T11:23:02.328ZYES2024 TeamsNOhttps://video.igem.org/w/d4Z9NidHDmLH71bm4DG7L6https://video.igem.org/lazy-static/thumbnails/577b48ed-d990-43cf-99ad-e251ee24f9f3.jpgMunich: progRAM overlapping gRNA part3 (2024) [English]The video shows the mechanism of gRNA overlapping in progRAM, part3https://static.igem.org/peertube/streaming-playlists/hls/61bc1dc0-189f-49ba-8ce1-496b0c2b5945/613eb318-f732-4a53-a227-e3a272fe397f-master.m3u8https://video.igem.org/videos/embed/d4Z9NidHDmLH71bm4DG7L66002024-10-01T16:45:04.984ZYES2024 TeamsNOhttps://video.igem.org/w/ra41KkY8SnMq9vk9yqXHZ3https://video.igem.org/lazy-static/thumbnails/35a08dfd-b649-49da-84f4-86fc19ce0863.jpgMunich: progRAM overlapping gRNA part4 (2024) [English]The video shows the mechanism of gRNA overlapping in progRAM, part4https://static.igem.org/peertube/streaming-playlists/hls/cbb80466-4bf1-4b9a-9ab7-c6b5de9e7248/5cd4ae8f-7cbd-425b-a4aa-9e62c0fd7634-master.m3u8https://video.igem.org/videos/embed/ra41KkY8SnMq9vk9yqXHZ311032024-10-01T16:44:56.207ZYES2024 TeamsNOhttps://video.igem.org/w/aQuZ41zR1LwwSVEeBs23Dxhttps://video.igem.org/lazy-static/thumbnails/b562071a-add0-4b04-a193-5c006c90ebfb.jpgMunich: progRAM overlapping gRNA part5 (2024) [English]The video shows the mechanism of gRNA overlapping in progRAM, part5https://static.igem.org/peertube/streaming-playlists/hls/4fa7cf8a-c0b0-48d9-a900-9c0d8cf6d6b1/9ab569fd-3b5b-449e-a4c6-7d5e7bee4fbd-master.m3u8https://video.igem.org/videos/embed/aQuZ41zR1LwwSVEeBs23Dx11002024-10-01T16:45:15.448ZYES2024 TeamsNOhttps://video.igem.org/w/o83nreWWXBCV3PFmkK7yuHhttps://video.igem.org/lazy-static/thumbnails/e33975de-6380-4ab4-bde1-5d18aee8f6f9.jpgMunich: progRAM overlapping gRNA part6 (2024) [English]The video shows the mechanism of gRNA overlapping in progRAM, part6https://static.igem.org/peertube/streaming-playlists/hls/b324b79b-1a79-4736-9fcc-fa85c9c5b201/56461018-6b44-4f67-8f28-4643e3ac8b6f-master.m3u8https://video.igem.org/videos/embed/o83nreWWXBCV3PFmkK7yuH9002024-10-01T17:07:09.190ZYES2024 TeamsNOhttps://video.igem.org/w/8VKcbkNeUKQnGe1VhQwkrghttps://video.igem.org/lazy-static/thumbnails/af61eaf2-f297-45db-99a9-53734ddc0d92.jpgMunich: progRAM overlapping gRNA part7 (2024) [English]The video shows the mechanism of gRNA overlapping in progRAM, part7https://static.igem.org/peertube/streaming-playlists/hls/40310246-f334-4f05-8061-539bf0e8a955/0cb5c49e-3c48-431e-9a80-06800568684b-master.m3u8https://video.igem.org/videos/embed/8VKcbkNeUKQnGe1VhQwkrg19012024-10-01T17:35:27.423ZYES2024 TeamsNOhttps://video.igem.org/w/nxbZfx44GyZktbtgpwqM51https://video.igem.org/lazy-static/thumbnails/d9f21fe0-2b19-4776-9140-9463631b4f99.jpgUESTC-China: Our show (2024) [Chinese]This is our show. Here is our wiki link https://2024.igem.wiki/uestc-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/ae6abd60-c91b-41e2-8997-5498c946927c/0cf9f254-3204-41e4-83f8-8db99a7178b2-master.m3u8https://video.igem.org/videos/embed/nxbZfx44GyZktbtgpwqM5157062024-10-01T09:30:24.022ZYES2024 TeamsNOhttps://video.igem.org/w/g4bQJUXP6gbwLpDEh2NAHZhttps://video.igem.org/lazy-static/thumbnails/3e346adc-ef8c-4c29-8067-83bf722b26a9.jpgHKUST: YSIP Promotion (2024)The 2-minute video serves as a recap of our 1.5-month program, capturing the essence of a truly meaningful summer. It showcases our journey from the initial orientation, where everyone first met, to the engaging lessons and hand-on sessions divided into modules. We witnessed the formation of groups and the exciting ideation process that led the students to the final presentations. This has been a significant journey for both us and the students.https://static.igem.org/peertube/streaming-playlists/hls/79eafde7-288e-4b04-8340-7d343ab49b8b/9b1dba2f-5865-420b-be7d-a8ea7b613a04-master.m3u8https://video.igem.org/videos/embed/g4bQJUXP6gbwLpDEh2NAHZ1000182024-10-01T09:57:00.277ZEmpowerment Summer ProgramPublic EngagementYSIPEducationYES2024 TeamsNOhttps://video.igem.org/w/jXLyjn5ev1mBFuqh3gKryZhttps://video.igem.org/lazy-static/thumbnails/5b8d435c-943f-434c-886d-718e6ffda485.jpgMcGill: iHP Final Reflection (2024) [English]iHP final reflection, https://2024.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/998ddcd1-5967-44d4-a7dd-9cd9db7661e5/53d960d6-572b-4f7b-87bb-9ff1b94ced00-master.m3u8https://video.igem.org/videos/embed/jXLyjn5ev1mBFuqh3gKryZ130002024-10-01T09:57:28.243ZYES2024 TeamsNOhttps://video.igem.org/w/pwHNxXSm1bXADbXs3CYCgshttps://video.igem.org/lazy-static/thumbnails/d635e302-46bc-46a1-895d-6dfd1f8463c1.jpgBielefeld-CeBiTec: Air-liquid interface (ALI) culture D16 (2024)ALI cultures of hNECs D16: The active cilia beat frequency of differentiated human nasal epithelial cells (hNECs) in air-liquid interface (ALI) culture is visible. This ciliary movement is crucial for mucociliary transport, which contributes to the clearance of particles and pathogens in the respiratory tract.https://static.igem.org/peertube/streaming-playlists/hls/be8c4398-ced6-4a32-8015-50d8ea0ac6d0/ddbf8335-ef4b-4697-9b98-32985c479f23-master.m3u8https://video.igem.org/videos/embed/pwHNxXSm1bXADbXs3CYCgs7022024-10-01T09:57:58.365ZYES2024 TeamsNOhttps://video.igem.org/w/jiawny3QnjcCmoNAzi5E3uhttps://video.igem.org/lazy-static/thumbnails/459e21d8-8a51-4810-87aa-0d894633de63.jpgBielefeld-CeBiTec: Air-liquid interface (ALI) culture D21 (2024)ALI cultures of hNECs D21: The active cilia beat frequency of differentiated human nasal epithelial cells (hNECs) in air-liquid interface (ALI) culture is visible. This ciliary movement is crucial for mucociliary transport, which contributes to the clearance of particles and pathogens in the respiratory tract.https://static.igem.org/peertube/streaming-playlists/hls/942a0256-1e04-4d25-8215-5eac749861b8/45204b2e-ec52-4b2f-a095-b0d5f09744d8-master.m3u8https://video.igem.org/videos/embed/jiawny3QnjcCmoNAzi5E3u980122024-10-01T11:25:24.243ZYES2024 TeamsNOhttps://video.igem.org/w/rxmMTgdNpu5au3TgoFLQXbhttps://video.igem.org/lazy-static/thumbnails/ef4814bf-ba57-4b49-94dd-53f920ed18a1.jpgBielefeld-CeBiTec: Air-liquid interface (ALI) culture D19 (2024)ALI cultures of hNECs D19: The active cilia beat frequency of differentiated human nasal epithelial cells (hNECs) in air-liquid interface (ALI) culture is visible. This ciliary movement is crucial for mucociliary transport, which contributes to the clearance of particles and pathogens in the respiratory tract. Due to 40x magnification on the microscope, the ciliary movement on the ciliated epithelium is particularly easy to recognise.https://static.igem.org/peertube/streaming-playlists/hls/ced5561a-6cfa-406c-879c-5f09549a4e90/3011eb7e-c992-48a9-af0c-545c8d3411f9-master.m3u8https://video.igem.org/videos/embed/rxmMTgdNpu5au3TgoFLQXb20022024-10-01T14:19:29.155ZYES2024 TeamsNOhttps://video.igem.org/w/t4RFxHr1xutkeQTP7fSQ7Uhttps://video.igem.org/lazy-static/thumbnails/433d72cf-6496-4c74-8916-9b0568c2031e.jpgBielefeld-CeBiTec: Apical-out airway organoids (AOAO) culture D5 (2024)Apical-Out Airway Organoid (AOAO) culture D5: Visible apical-out airway organoids in action. These 3D structures, which mimic the airway epithelium, allow detailed study of cellular processes such as mucociliary transport and secretory activities, in which cilia and vesicles play a key role.https://static.igem.org/peertube/streaming-playlists/hls/db3097b8-0fc2-49e9-b6cc-f52ef21f7000/1f1f16ac-9ef9-45ad-81d7-cc210ac14d4c-master.m3u8https://video.igem.org/videos/embed/t4RFxHr1xutkeQTP7fSQ7U10032024-10-01T14:38:14.670ZYES2024 TeamsNOhttps://video.igem.org/w/9bFjcQeKy8ZoHyrvGUnfJFhttps://video.igem.org/lazy-static/thumbnails/537c2680-c69e-42cb-853b-d1324cc0386c.jpgBielefeld-CeBiTec: Apical-out airway organoids (AOAO) culture D9 (2024)Apical-Out Airway Organoid (AOAO) culture D9: Visible apical-out airway organoids in action. These 3D structures, which mimic the airway epithelium, allow detailed study of cellular processes such as mucociliary transport and secretory activities, in which cilia and vesicles play a key role.https://static.igem.org/peertube/streaming-playlists/hls/4246c666-efce-425e-a91a-d6393dfa24eb/6859af1a-28f7-4dc8-842b-c2eb04e7efe5-master.m3u8https://video.igem.org/videos/embed/9bFjcQeKy8ZoHyrvGUnfJF32012024-10-01T16:46:00.248ZYES2024 TeamsNOhttps://video.igem.org/w/fr3RUof8b9Ut15spfeCQ4jhttps://video.igem.org/lazy-static/thumbnails/09ac3525-f44d-4dcf-b605-128af1a51dd6.jpgBielefeld-CeBiTec: Apical-out airway organoids (AOAO) culture D12 (2024)Apical-Out Airway Organoid (AOAO) culture D12: Visible apical-out airway organoids in action. These 3D structures, which mimic the airway epithelium, allow detailed study of cellular processes such as mucociliary transport and secretory activities, in which cilia and vesicles play a key role.https://static.igem.org/peertube/streaming-playlists/hls/74df4c5b-a884-40e8-bf92-6496a50c8e70/10df74f5-3786-45e5-ba55-9255e154791a-master.m3u8https://video.igem.org/videos/embed/fr3RUof8b9Ut15spfeCQ4j28022024-10-01T17:07:49.170ZYES2024 TeamsNOhttps://video.igem.org/w/bLsdEfLN93C7dviP1a4Yuxhttps://video.igem.org/lazy-static/thumbnails/450eda1f-109b-434b-828b-1165d8439e6e.jpgSydney-Australia: Rebolutionaries Instagram Ep. 1 --- Overview (2024) [English]Our description of our project, posted on our Instagram (https://www.instagram.com/igem_usyd/) and our wiki (https://2024.igem.wiki/sydney-australia/education)to educate the public on how synthetic biology works.https://static.igem.org/peertube/streaming-playlists/hls/57304522-c5ca-45f8-9b2f-3d8f06124f9f/95287b1d-6708-4b3d-b5b2-9991a5c90a47-master.m3u8https://video.igem.org/videos/embed/bLsdEfLN93C7dviP1a4Yux2900172024-10-01T04:50:33.859ZYES2024 TeamsNOhttps://video.igem.org/w/iwXLyUiMskNGkfRHzK1PPnhttps://video.igem.org/lazy-static/thumbnails/87575216-124c-4c61-bf92-aa430b02457e.jpgBielefeld-CeBiTec: Apical-out airway organoids (AOAO) culture D14 (2024)Apical-Out Airway Organoid (AOAO) culture D14: Visible apical-out airway organoids in action. These 3D structures, which mimic the airway epithelium, allow detailed study of cellular processes such as mucociliary transport and secretory activities, in which cilia and vesicles play a key role.https://static.igem.org/peertube/streaming-playlists/hls/8dfe09ef-fdb6-48ad-8a0a-f82fbde70e67/dd734a29-dc6a-4bd6-9f7b-0f55fed30fc6-master.m3u8https://video.igem.org/videos/embed/iwXLyUiMskNGkfRHzK1PPn19022024-10-01T17:35:58.857ZYES2024 TeamsNOhttps://video.igem.org/w/uwC84DY8juntSPF9zb7wUvhttps://video.igem.org/lazy-static/thumbnails/edd6e424-4819-4eec-ab15-59997505bab4.jpgBielefeld-CeBiTec: Apical-out airway organoids (AOAO) culture D19 (2024)Apical-Out Airway Organoid (AOAO) culture D19: Visible apical-out airway organoids in action. These 3D structures, which mimic the airway epithelium, allow detailed study of cellular processes such as mucociliary transport and secretory activities, in which cilia and vesicles play a key role.https://static.igem.org/peertube/streaming-playlists/hls/e70674d7-9f18-4ab5-b0ec-16a7801d01cd/0cbcb96b-e074-4d3c-b531-cdaf2c46bf2b-master.m3u8https://video.igem.org/videos/embed/uwC84DY8juntSPF9zb7wUv9042024-10-01T17:59:33.364ZYES2024 TeamsNOhttps://video.igem.org/w/3m2m9ev1dbZbWoY1rGHtxXhttps://video.igem.org/lazy-static/thumbnails/5424064f-e0e9-4f46-8eba-475bd4a9b2ac.jpgUBC-Vancouver: Microfluidic Troubleshooting (2024) [English]This video covers common issues with microfluidic chips that require troubleshooting, focusing on adhesive overlap, nozzle leaks, chip leaks, and dead flow. https://static.igem.org/peertube/streaming-playlists/hls/12fdfba6-635e-474f-89ce-78f61a7b8f91/35d622df-08d6-4ed4-bb65-5f6f039ed662-master.m3u8https://video.igem.org/videos/embed/3m2m9ev1dbZbWoY1rGHtxX1510162024-10-01T10:01:03.711ZYES2024 TeamsNOhttps://video.igem.org/w/e9LWzxqYREwd4rGhWoY1B2https://video.igem.org/lazy-static/thumbnails/bc252478-3dc5-4e14-9d79-211a8c069128.jpgSydney-Australia: Rebolutionaries Instagram Ep. 2 --- Purification (2024) [English]Have a look at our protein purification method! Posted on our Instagram (https://www.instagram.com/igem_usyd/) and our wiki (https://2024.igem.wiki/sydney-australia/education)to educate the public on how synthetic biology works.https://static.igem.org/peertube/streaming-playlists/hls/6a8072d8-a880-4b58-8982-86a9cb487ecf/921a9209-d1fa-464e-b393-d361c7ced472-master.m3u8https://video.igem.org/videos/embed/e9LWzxqYREwd4rGhWoY1B2166062024-10-01T05:04:58.285ZYES2024 TeamsNOhttps://video.igem.org/w/1hPvMv7Vv5Zuh6xr5HTS6uhttps://video.igem.org/lazy-static/thumbnails/91a2b692-9c41-46b5-b7a0-ac9628584461.jpgSydney-Australia: Rebolutionaries Instagram Ep. 3 --- Conjugation (2024) [English]A video describing the core feature of our parts --- the protein linkers allowing conjugation to just about anything! Posted on our Instagram (https://www.instagram.com/igem_usyd/) and our wiki (https://2024.igem.wiki/sydney-australia/education)to educate the public on how synthetic biology works.https://static.igem.org/peertube/streaming-playlists/hls/02592e7b-6df7-46c7-985d-7b8c00a8950e/b31c7f55-1bda-423b-b570-184e7839f3a0-master.m3u8https://video.igem.org/videos/embed/1hPvMv7Vv5Zuh6xr5HTS6u188032024-10-01T10:03:24.136ZYES2024 TeamsNOhttps://video.igem.org/w/mqieJZERvNWLdJ1yVFFfa4https://video.igem.org/lazy-static/thumbnails/76b13b28-b7db-48f4-902b-7da2d9053dca.jpgNAU-CHINA: A Podcast of SAMUS feat. BUCT-China (2024) [Chinese]This is a record of our Podcast with BUCT-China, discussing the application & design of our project, etc. This is our website link: https://2024.igem.wiki/nau-chinahttps://static.igem.org/peertube/streaming-playlists/hls/a55b3f0e-0fe9-4f22-90c4-d6d4448317ad/2129efe0-5b95-4d3e-99a9-3e1fb1877c7d-master.m3u8https://video.igem.org/videos/embed/mqieJZERvNWLdJ1yVFFfa4554022024-10-01T14:39:58.911ZYES2024 TeamsNOhttps://video.igem.org/w/4HkMgWEdDVsgq33YwhtqpDhttps://video.igem.org/lazy-static/thumbnails/e7d90fd0-4194-4dcc-98ea-b5abf4c7a3d6.jpgJIASHU-China: software (2024)https://2024.igem.wiki/jiashu-china/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/1e1119cc-9fd1-4d21-a8d7-0336ccbc3db3/96423cbb-3b3b-499e-8337-c89f41c144e4-master.m3u8https://video.igem.org/videos/embed/4HkMgWEdDVsgq33YwhtqpD430182024-10-01T05:51:21.361ZYES2024 TeamsNOhttps://video.igem.org/w/mzac14BzvrMn7tZo1L5avFhttps://video.igem.org/lazy-static/thumbnails/bd4afc6f-6b23-46d7-9d31-039420cbc044.jpgWHU-China: Intestide Doodle (2024) [Chinese]A Song to our team! To help internet audiences understand and connect with our project, we wrote a team song called "Intestide Doodle." We picked the melody from "Yankee Doodle," rearranged the instrumental music, composed the new lyrics, and did the tuning and editing. We chose Vocaloid China's Vsinger Luo Tian Yi as the singer for our team song, combining the music with lively and amusing illustrations to provide viewers a pleasurable and joyful video experience. https://static.igem.org/peertube/streaming-playlists/hls/a697fb1f-5ea2-4229-95fe-41d854a0275d/823783b7-b4d2-47e0-9f1b-8da1dbfb2ff6-master.m3u8https://video.igem.org/videos/embed/mzac14BzvrMn7tZo1L5avF770292024-10-01T05:57:06.241ZYES2024 TeamsNOhttps://video.igem.org/w/wgR4zBpVqATNjd5A2b3txehttps://video.igem.org/lazy-static/thumbnails/cf2add77-6573-4232-b39a-6fb602691b6f.jpgHunanU: Junyan_Shi (2024) [English]HunanU: Junyan_Shi (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/f5288d3c-9bc8-4051-82c8-d92a19fe84ef/3ed584ff-24e0-432a-9bd3-bd3f92602407-master.m3u8https://video.igem.org/videos/embed/wgR4zBpVqATNjd5A2b3txe41032024-10-01T10:05:18.099ZYES2024 TeamsNOhttps://video.igem.org/w/br3wHPHbppuuXhGjfhk36Ehttps://video.igem.org/lazy-static/thumbnails/98d8fc44-0587-4a82-991a-8be81841008c.jpgAustin-utexas: iGEM feature on KVRX 91.7 Buzz Off! radio show (2024) [English]In collaboration with the student-run radio station KVRX, we appeared on the show "Buzz Off!," which explores the world of bugs in nature and in the lab. The UT iGEM team starred on the show to share how the fields of entomology and synthetic biology can intersect. Artwork credit: Fiona Wyrtzen Buzz Off! Radio Show Host: Lily Gendron Wiki: https://2024.igem.wiki/austin-utexas/ https://static.igem.org/peertube/streaming-playlists/hls/547a8a31-6e1c-41bb-8074-fa29078a26c8/b7da6b9f-2771-4816-917a-c504cc31303e-master.m3u8https://video.igem.org/videos/embed/br3wHPHbppuuXhGjfhk36E1095052024-10-01T08:52:20.462ZYES2024 TeamsNOhttps://video.igem.org/w/8Pi4cB4ev5rMvxa9o6VSX4https://video.igem.org/lazy-static/thumbnails/e7bfb0c3-8b6c-4f2e-935b-0083f05151c0.jpgOhioState: Abbott Family STEM Fair - Mycoremediation Playdough (2024) [English]Watch as kids dive into a fun and hands-on activity to learn about plastic pollution and bioremediation! Using colorful playdough and snack-size Ziploc bags, they explore how bacteria, with a little help from science, can become superheroes and "eat" plastic. In this interactive activity, children build their own polluted planet and use engineered "plastic-eating bacteria" to clean it up. Along the way, they discover the magic of genetic engineering and the power of science in protecting the environment.https://static.igem.org/peertube/streaming-playlists/hls/3f4a703d-38d2-4436-8f5d-5ff7faf0c259/3eeed592-885a-474b-8429-24e8e702931f-master.m3u8https://video.igem.org/videos/embed/8Pi4cB4ev5rMvxa9o6VSX4220082024-10-01T07:29:56.196ZYES2024 TeamsNOhttps://video.igem.org/w/aCcxmnKAXs3MXoK637ZcAUhttps://video.igem.org/lazy-static/thumbnails/24b4512d-9969-4bd9-ac77-43d34504e815.jpgOhioState: Abbott Family STEM Fair - Intro to Plastics (2024) [English]Join us for a fun and educational activity where kids explore the seven types of plastic! Through hands-on learning, they will discover how scientists group plastics based on their special characteristics and uses. Watch as the children match real plastic samples with their corresponding descriptions, learning about materials like PET, HDPE, and PVC. Through engaging discussions and interactive guessing games, they’ll uncover the role plastic plays in our daily lives and the importance of recycling.https://static.igem.org/peertube/streaming-playlists/hls/4df022c1-d41c-45e4-8519-1c67cf7057bc/872318c8-31ff-4e83-a3ff-3842865303c9-master.m3u8https://video.igem.org/videos/embed/aCcxmnKAXs3MXoK637ZcAU160062024-10-01T07:54:08.041ZYES2024 TeamsNOhttps://video.igem.org/w/m4N6pYY6Fiz71Wmq5Y8wfMhttps://video.igem.org/lazy-static/thumbnails/183c1765-97c5-44fa-a5ec-39d526039127.jpgOhioState: Abbott Family STEM Fair - Intro to Yeast (2024) [English]In this fun and easy science activity, kids get hands-on with yeast and balloons to discover the power of microorganisms! Watch as they learn how yeast, sugar, and warm water mix to create a bubbly reaction that inflates a balloon using carbon dioxide gas. This interactive demonstration teaches how yeast, a living microorganism, "eats" sugar and produces gas, much like it does when making bread rise. Perfect for curious minds, the activity becomes a real experiment when they explore questions like how temperature, container size, and different foods affect the yeast's gas production. Fun, learning, and science come to life in this simple experiment! Based on the instructions provided by Science Bob: https://sciencebob.com/blow-up-a-balloon-with-yeast/https://static.igem.org/peertube/streaming-playlists/hls/a27e6918-f9f0-4bd8-bb52-78afe912a4a9/1ccd760c-58ba-48fa-966a-ec09e514b3ec-master.m3u8https://video.igem.org/videos/embed/m4N6pYY6Fiz71Wmq5Y8wfM111072024-10-01T10:13:51.836ZYES2024 TeamsNOhttps://video.igem.org/w/cavnR6Rf4caoTH2DH1mKa3https://video.igem.org/lazy-static/thumbnails/3ba9c940-6be5-49ca-b867-1bc7aeb8077c.jpgOhioState: Harvard Future in Biology Conference (2024) [English]Experience the excitement of the Future of Biology Conference, hosted by Harvard OpenBio Laboratory and MIT Biomakers on April 20th, 2024! In this interactive workshop, high school students learned about the iGEM competition and how synthetic biology projects are developed. Watch as participants brainstorm innovative solutions to plastic pollution in breakout groups, collaborating and sharing ideas.https://static.igem.org/peertube/streaming-playlists/hls/5a6852bd-6cc4-41a2-9f90-e8cdba35b198/3b7e5822-46b3-4d98-98ed-8df937e4a5f2-master.m3u8https://video.igem.org/videos/embed/cavnR6Rf4caoTH2DH1mKa33967082024-10-01T11:54:17.514ZYES2024 TeamsNOhttps://video.igem.org/w/cP5ykS2g6zshRntPBroLbkhttps://video.igem.org/lazy-static/thumbnails/f31d2cbf-5946-4e42-a554-72a17727f7ef.jpgBUCT: Javier Pimentel-cancer (2024) [Spanish]BUCT: Javier Pimentel-cancer (2024) [Spanish]https://static.igem.org/peertube/streaming-playlists/hls/5fa74a8b-5063-4f1a-ace8-26de59f04fa7/25799406-eb2d-4f70-884d-b7031c920267-master.m3u8https://video.igem.org/videos/embed/cP5ykS2g6zshRntPBroLbk71022024-10-01T07:55:29.332ZYES2024 TeamsNOhttps://video.igem.org/w/kgWiCUcfwyg1QbsMcuAWeUhttps://video.igem.org/lazy-static/thumbnails/dc62ba3d-72ec-45b0-a52b-5da4f2f3043a.jpgHKU-HongKong: TMP-system explained (2024) [English]A short, animated video explaining the workings of the TMP Control system utilized in the project. https://2024.igem.wiki/hku-hongkong/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/9c1741d5-7850-4f7a-8bc0-d272046289ee/a98eb328-cca5-4f4f-9df2-f2d898ef118b-master.m3u8https://video.igem.org/videos/embed/kgWiCUcfwyg1QbsMcuAWeU9052024-10-01T07:33:10.626ZYES2024 TeamsNOhttps://video.igem.org/w/hzhFVDKfAAGJjW3UaHMxRBhttps://video.igem.org/lazy-static/thumbnails/e84c17d4-2cc4-421d-b4fe-31614dc8ddf5.jpgBUCT: Javier Pimentel-age&fatigue (2024) [Spanish]BUCT: Javier Pimentel-age&fatigue (2024) [Spanish]https://static.igem.org/peertube/streaming-playlists/hls/86380c2b-7bd2-4b47-b56c-c99f8f1c61d1/db49ca64-47f7-449b-9825-aa1bb751ad47-master.m3u8https://video.igem.org/videos/embed/hzhFVDKfAAGJjW3UaHMxRB72052024-10-01T10:15:13.202ZYES2024 TeamsNOhttps://video.igem.org/w/fbeAkArjhst9etUDRwNUWbhttps://video.igem.org/lazy-static/thumbnails/c62f3576-6b89-42ac-a4c9-2c51d6489b8c.jpgHKU-HongKong: mmRNA Explained (2024) [English]A short, animated video explaining the molecular workings of the mmRNA system used by the HKU iGEM team in their project. https://2024.igem.wiki/hku-hongkong/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/72cdc15d-1975-4260-8d41-a045e73f8486/cab7ecac-5d7f-440a-8583-07d09ab00027-master.m3u8https://video.igem.org/videos/embed/fbeAkArjhst9etUDRwNUWb39072024-10-01T07:56:42.214ZYES2024 TeamsNOhttps://video.igem.org/w/qWg7JV9fnXT1FzZsggBTFshttps://video.igem.org/lazy-static/thumbnails/f0c7090f-c97b-4d74-b4ce-b3c60b70c988.jpgBUCT: Javier Pimentel-unstable molecule (2024) [Spanish]BUCT: Javier Pimentel-unstable molecule (2024) [Spanish]https://static.igem.org/peertube/streaming-playlists/hls/c9eece9e-ed5a-4fdd-b78b-730e08e05ae4/a2aa69d8-fc1b-4def-9f0b-523fa2e1c142-master.m3u8https://video.igem.org/videos/embed/qWg7JV9fnXT1FzZsggBTFs71062024-10-01T11:54:48.746ZYES2024 TeamsNOhttps://video.igem.org/w/soJkrA6fCK6AgX3wdEsVC8https://video.igem.org/lazy-static/thumbnails/a844ac3b-f92d-4ad5-9687-5f9b6358a127.jpgBUCT: Javier Pimentel-neuroinflammation (2024) [Spanish]BUCT: Javier Pimentel-neuroinflammation (2024) [Spanish]https://static.igem.org/peertube/streaming-playlists/hls/d5ba0ede-edca-4f6a-90df-48cbae37aa13/68554ca0-a8df-45da-9898-64ab8077fd0e-master.m3u8https://video.igem.org/videos/embed/soJkrA6fCK6AgX3wdEsVC872052024-10-01T14:21:08.439ZYES2024 TeamsNOhttps://video.igem.org/w/eeETV4X7RLGdt22XSRHQz8https://video.igem.org/lazy-static/thumbnails/90e6e400-05b8-4e3b-b8e4-c2e5107a2bfe.jpgHKU-HongKong: VEE Replication (2024) [English]A short, animated video explaining the molecular workings of the VEE vector cloning and replication system used by the HKU iGEM team in their project. https://2024.igem.wiki/hku-hongkong/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6b2f7108-a34e-4586-b8e3-68a8cc00d939/4c93f5db-1b59-4e0d-9914-aa15fa622dcf-master.m3u8https://video.igem.org/videos/embed/eeETV4X7RLGdt22XSRHQz8630122024-10-01T10:17:08.377ZYES2024 TeamsNOhttps://video.igem.org/w/3oD9bPPGrRMDpuztBPWbWdhttps://video.igem.org/lazy-static/thumbnails/7dabbcd5-a69b-47ae-b78a-53dc3a48fefa.jpgBUCT: Javier Pimentel-dementia&seizures (2024) [Spanish]BUCT: Javier Pimentel-dementia&seizures (2024) [Spanish]https://static.igem.org/peertube/streaming-playlists/hls/135b8780-9c14-4e60-aea8-d5e1b573f030/b304c3d3-a439-4fa2-957e-7df97918779c-master.m3u8https://video.igem.org/videos/embed/3oD9bPPGrRMDpuztBPWbWd70042024-10-01T14:41:22.943ZYES2024 TeamsNOhttps://video.igem.org/w/95T4VQyeskM6e3pWqfZYowhttps://video.igem.org/lazy-static/thumbnails/8aff19a7-462d-4f6c-a2d0-1d5d9fb4ed0d.jpgEPFL: Trailer (2024)Trailer of the project from the EPFL iGEM 2024 team. https://static.igem.org/peertube/streaming-playlists/hls/41778e53-c1d2-4ac9-8fd8-9971c8add8c2/0061b5e4-0d47-49c8-9514-10c5bccef9b4-master.m3u8https://video.igem.org/videos/embed/95T4VQyeskM6e3pWqfZYow4401032024-10-01T14:25:26.322ZYES2024 TeamsNOhttps://video.igem.org/w/6FmZtapqz4jw4ToupDbomAhttps://video.igem.org/lazy-static/thumbnails/3d0e6b1e-395e-4d90-8c82-1470593b8ef5.jpgIOANNINA: Human Practices Intro (2024)The Human Practices intro for our Human Practices wiki page (https://2024.igem.wiki/ioannina/human-practices).https://static.igem.org/peertube/streaming-playlists/hls/2dfca2ea-7aff-4dc2-a78f-0b9e6b5b6f02/3ff57207-6c54-4795-8efe-f662256f13db-master.m3u8https://video.igem.org/videos/embed/6FmZtapqz4jw4ToupDbomA290502024-10-01T18:25:21.419ZYES2024 TeamsNOhttps://video.igem.org/w/ebX7JWJZMdTBynx9HFacmUhttps://video.igem.org/lazy-static/thumbnails/a133eddc-e24a-4c88-a419-a98c668b8f69.jpgBUCT: History of Synthetic Biology (2024) [English]BUCT: History of Synthetic Biology (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/6ace34f4-5b1e-4e6a-832f-000e44932540/b32f33d4-26ed-4fdb-afe0-37bc9e789da1-master.m3u8https://video.igem.org/videos/embed/ebX7JWJZMdTBynx9HFacmU249072024-10-01T16:47:23.971ZYES2024 TeamsNOhttps://video.igem.org/w/9WNzy4WwnjLsKJxYasQQKjhttps://video.igem.org/lazy-static/thumbnails/d0202166-c30b-4c0f-961e-f7088c80a33f.jpgBUCT: Gene Editing Technology feat. HiZJU-China (2024) [English]BUCT: Gene Editing Technology feat. HiZJU-China (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/486ffa56-4caa-4b44-8fab-9276603c11d0/27ed5232-fefb-4f81-9b75-21a64cfe4291-master.m3u8https://video.igem.org/videos/embed/9WNzy4WwnjLsKJxYasQQKj356032024-10-01T17:08:51.961ZYES2024 TeamsNOhttps://video.igem.org/w/uWN4Gs4HDc1fA6Hvuja2kVhttps://video.igem.org/lazy-static/thumbnails/e3e45410-3293-498d-874a-f9abd400b74e.jpgAustin-utexas: Street Science: Community Science Dialogues (2024) [English]UT Austin iGEM members engaged in a two-way dialogue about synthetic biology, celiac disease, and GMOs. Video editing: Rosie Du, Ariana Hernandez Wiki: https://2024.igem.wiki/austin-utexas/https://static.igem.org/peertube/streaming-playlists/hls/ea666f11-0168-469d-928c-872d560a6a6f/2122c79a-3450-4674-8d74-d58999a0470d-master.m3u8https://video.igem.org/videos/embed/uWN4Gs4HDc1fA6Hvuja2kV3930192024-10-01T09:05:45.407ZYES2024 TeamsNOhttps://video.igem.org/w/3JMjUbWB5LMSic3FESTbzKhttps://video.igem.org/lazy-static/thumbnails/2419da27-2776-427e-b909-187accf4ca37.jpgIOANNINA: Sponsors Page text to speech (2024) [English]This is a text to speech audio file for the Sponsors Page of our wiki (https://2024.igem.wiki/ioannina/sponsors) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/162b72de-d8c0-416e-925e-0b4448b761a5/dbae5377-b5e1-4886-82dd-4f12052fa0f7-master.m3u8https://video.igem.org/videos/embed/3JMjUbWB5LMSic3FESTbzK273052024-10-01T18:26:04.115ZYES2024 TeamsNOhttps://video.igem.org/w/hkjtBZqDPzaPgKSHEvWw7fhttps://video.igem.org/lazy-static/thumbnails/18d805c3-2930-48e4-991b-e4dcd0a3293f.jpgMacquarieUni: Levur Interview (2024) [English]Levur Interview Macquarie University 2024https://static.igem.org/peertube/streaming-playlists/hls/8444bc8f-5a7f-4313-9067-a54b5decb2e2/f37e7627-8103-4569-b67e-ef0978aac312-master.m3u8https://video.igem.org/videos/embed/hkjtBZqDPzaPgKSHEvWw7f983062024-10-01T09:18:17.157ZYES2024 TeamsNOhttps://video.igem.org/w/3T6yZzAhjgKcAqq6aVgrcHhttps://video.igem.org/lazy-static/thumbnails/ce96aaef-13b9-47c1-bc56-c10255efaefa.jpgIOANNINA: Project Safety Page text to speech (2024) [English]This is a text to speech audio file for the Safety Page of our wiki (https://2024.igem.wiki/ioannina/safety) to enable users to listen to the page content.https://static.igem.org/peertube/streaming-playlists/hls/1754a439-fcb3-4f91-9c46-72f1f22ba5b3/3677cd5d-600b-4d52-84b9-6eb774238fde-master.m3u8https://video.igem.org/videos/embed/3T6yZzAhjgKcAqq6aVgrcH443002024-10-01T18:27:12.489ZYES2024 TeamsNOhttps://video.igem.org/w/9okFf4hfiVXitWxgMSrNt5https://video.igem.org/lazy-static/thumbnails/7217f6e1-0834-427a-bfd8-37c48f738e2e.jpgHeidelberg: Elementary School Workshop Introduction (2024) [German]Welcome to our introduction video for the elementary school workshops by the iGEM Team Heidelberg 2024. In this video, you'll meet Zelda Zellstein, a brilliant researcher whose work has just been stolen! Spoken in German with English subtitles, the video introduces the mystery that students will help solve in our workshop. Together, they'll assist Zelda in recovering her lost research. It's a fun and engaging start to an exciting science adventure. We hope you enjoy it and are ready to join us in helping Zelda. We hope you enjoy it and get excited to join us for some hands-on experiments and discovery! Here you can see all our education efforts from Heidelberg 2024: https://2024.igem.wiki/heidelberg/educationhttps://static.igem.org/peertube/streaming-playlists/hls/43e7992d-842f-4818-a272-d7e795eeae02/a8acbb5c-7733-46b0-a282-7c0c46545739-master.m3u8https://video.igem.org/videos/embed/9okFf4hfiVXitWxgMSrNt51370782024-10-01T10:01:37.408ZYES2024 TeamsNOhttps://video.igem.org/w/2NjMbZE72zh5x6TLkcFch8https://video.igem.org/lazy-static/thumbnails/0404a15d-80ab-4a60-bc10-6efa08ec194c.jpgWarwick: Gel Electrophoresis - iGEM101 (2024) [English]https://2024.igem.wiki/warwick/educationhttps://static.igem.org/peertube/streaming-playlists/hls/0e90ecd5-54e2-4aac-9649-38836176d05b/91a5d6d8-4821-4152-8132-e32e0a1c818a-master.m3u8https://video.igem.org/videos/embed/2NjMbZE72zh5x6TLkcFch8276032024-10-01T11:00:02.389ZYES2024 TeamsNOhttps://video.igem.org/w/ie7BrH1SNBLybncVdJLUfthttps://video.igem.org/lazy-static/thumbnails/81a44f52-3579-4b76-b70c-911f2b30a651.jpgExeter: Cas protein explanation (2024) [English]Explanation of how our cas protein system works with an accompanying animation. https://2024.igem.wiki/exeter/part https://static.igem.org/peertube/streaming-playlists/hls/8b8019b7-abfc-4be3-8314-7c4e751e9d57/8431fde7-fa70-4cef-b162-532af5128e0e-master.m3u8https://video.igem.org/videos/embed/ie7BrH1SNBLybncVdJLUft510152024-10-01T11:02:43.867ZYES2024 TeamsNOhttps://video.igem.org/w/w3cNirakjPeh9UM5S2hoSyhttps://video.igem.org/lazy-static/thumbnails/e6816b11-fd9c-41e9-aa04-bc730a256bcf.jpgPeking: The trajectory analysis for nPPV (2024)Peking: The trajectory analysis for nPPV (2024)https://static.igem.org/peertube/streaming-playlists/hls/f340eb15-2a64-429a-b4e5-5b3880f1c2dc/26fa61c8-e3fc-436a-bcc7-bdfa62c7d71f-master.m3u8https://video.igem.org/videos/embed/w3cNirakjPeh9UM5S2hoSy330102024-10-01T14:43:09.546ZYES2024 TeamsNOhttps://video.igem.org/w/nyNHWLDq5WMcddPCF3S9Uuhttps://video.igem.org/lazy-static/thumbnails/febf5552-18ca-4e5f-b263-77aa7ac61709.jpgPeking: The trajectory analysis for cPPV (2024)Peking: The trajectory analysis for cPPV (2024)https://static.igem.org/peertube/streaming-playlists/hls/aea481b5-da29-4e4c-a411-e5c5c4de3cd4/cf54107a-9086-4a2b-854c-1881b6afa6ba-master.m3u8https://video.igem.org/videos/embed/nyNHWLDq5WMcddPCF3S9Uu34062024-10-01T16:51:06.207ZYES2024 TeamsNOhttps://video.igem.org/w/ucUo4NopnxuCDsDeFRX4q2https://video.igem.org/lazy-static/thumbnails/9b0b6b1e-5524-4403-9434-f54b4ffbdb0a.jpgHKPOLYU: interview_1 (2024) [English]interview with medical professional (2024.igem.wiki/hkpolyu)https://static.igem.org/peertube/streaming-playlists/hls/e4695833-f3b4-4b60-8858-d73fc1d408a5/fc391415-d230-418e-8848-4e0e983fb511-master.m3u8https://video.igem.org/videos/embed/ucUo4NopnxuCDsDeFRX4q211300442024-10-01T17:31:07.941ZYES2024 TeamsNOhttps://video.igem.org/w/1KwoV6zUyUFAiYF2q4BogZhttps://video.igem.org/lazy-static/thumbnails/60c2f193-e8c0-48c6-9fd0-b1e60ba98821.jpgBielefeld-CeBiTec: Interview Müller AAV vs LNP (2024) [English]Interview with our PI Prof. Dr. Kristian Müller on AAV and LNP delivery systems and overall projecthttps://static.igem.org/peertube/streaming-playlists/hls/0613b6b8-7755-4373-9d86-9910fe30781f/089d01b9-a83d-4fd1-8286-02b45fcbc8ee-master.m3u8https://video.igem.org/videos/embed/1KwoV6zUyUFAiYF2q4BogZ5710142024-10-01T12:20:24.614ZYES2024 TeamsNOhttps://video.igem.org/w/iimguRXQDv984DoB2acDychttps://video.igem.org/lazy-static/thumbnails/6a3d94ac-0804-44a8-9e87-a0163e2e9f89.jpgHKPOLYU: interview_2 (2024) [English]interview with medical professional (2024.igem.wiki/hkpolyu)https://static.igem.org/peertube/streaming-playlists/hls/8c177dcd-6b83-486e-8852-ebfa64e2b927/d25378e0-5a38-409f-9ca4-f90a2e52210a-master.m3u8https://video.igem.org/videos/embed/iimguRXQDv984DoB2acDyc11140382024-10-01T17:52:16.361ZYES2024 TeamsNOhttps://video.igem.org/w/c44UU8C4hanWs4X6dS8pG9https://video.igem.org/lazy-static/thumbnails/53d5c57a-5cf9-4d7f-95a8-be0bfa425386.jpgCity-of-London-UK: Operating Hardware Prototype (2024) [English]Our operating box design for Project Kn2ockout!https://static.igem.org/peertube/streaming-playlists/hls/59822ade-5cb0-4774-a108-348394de36cc/2beb1387-5593-4a9c-8ef0-ecde0ec43226-master.m3u8https://video.igem.org/videos/embed/c44UU8C4hanWs4X6dS8pG9280152024-10-01T12:11:36.346ZYES2024 TeamsNOhttps://video.igem.org/w/bxjzFnChotdqjWwNQq8SDdhttps://video.igem.org/lazy-static/thumbnails/8072d87a-206c-40b1-a224-ab2e90a73b40.jpgMIT-MAHE: CAAPI Education Animation (2024)The video contains a short animation intended for kids explaining iGEM MIT-MAHE 2024's project - CAAPI https://static.igem.org/peertube/streaming-playlists/hls/555ae4eb-3cc9-4cc8-982e-a2e3c5cbcc8e/c40577f7-c419-4200-bab9-0dd42d4cfbf6-master.m3u8https://video.igem.org/videos/embed/bxjzFnChotdqjWwNQq8SDd580232024-10-01T12:10:46.435ZYES2024 TeamsNOhttps://video.igem.org/w/6JXufRSwXh3RLckj3QUHtqhttps://video.igem.org/lazy-static/thumbnails/bfa92406-c028-4086-9cfa-224276c9bbc4.jpgPatras-Med: NetLogo Simulation (2024)Netlogo Simulation for exosome passage through the BBB https://2024.igem.wiki/patras-medhttps://static.igem.org/peertube/streaming-playlists/hls/2e7d2077-bd6d-4532-93c6-cdfaad299e5a/ec2f9da8-1da2-4c27-a502-5b953d46cf0c-master.m3u8https://video.igem.org/videos/embed/6JXufRSwXh3RLckj3QUHtq5901182024-10-01T12:24:36.659ZYES2024 TeamsNOhttps://video.igem.org/w/bNs94Uhk7ZrpBsPKyhoJk2https://video.igem.org/lazy-static/thumbnails/2aae26ef-0593-45d9-8dd7-420b4243cc54.jpgJLU-NBBMS: ethics (2024) [Chinese]jlu-nbbms ethics-related videohttps://static.igem.org/peertube/streaming-playlists/hls/5777b574-5f14-4a38-8390-2f7dceb1a6e7/969ec793-74fb-4292-9407-dad1eedac70b-master.m3u8https://video.igem.org/videos/embed/bNs94Uhk7ZrpBsPKyhoJk2178042024-10-01T12:32:52.831Zethicsjlu-nbbmsYES2024 TeamsNOhttps://video.igem.org/w/cdc6R1cvyHJnbuyLJq4n6Chttps://video.igem.org/lazy-static/thumbnails/e6367fac-f186-4ef2-8cec-5a778c4fb7bf.jpgPatras-Med: Molecular Dynamics Simulation (2024)A molecular dynamics simulation footage from gromacs https://2024.igem.wiki/patras-medhttps://static.igem.org/peertube/streaming-playlists/hls/5ac84aa5-f614-4a2c-a0d4-f33ab3c0a072/1451bd6e-e17b-4457-b80d-90ad3024122a-master.m3u8https://video.igem.org/videos/embed/cdc6R1cvyHJnbuyLJq4n6C280542024-10-01T12:32:44.946ZYES2024 TeamsNOhttps://video.igem.org/w/kJLpBA92B9KPapHyTg5n3shttps://video.igem.org/lazy-static/thumbnails/8f366098-275d-455a-8b27-e34bc5a8d776.jpgCambridge: MNPs moving in water (2024)Magnetic nanoparticles moving towards left in water under a magnetic field. https://static.igem.org/peertube/streaming-playlists/hls/9fd63d60-08b3-48dc-accf-4b283ef61b72/94e92c5e-9523-4cb4-b403-a42c04ad003b-master.m3u8https://video.igem.org/videos/embed/kJLpBA92B9KPapHyTg5n3s600222024-10-01T12:58:24.481ZYES2024 TeamsNOhttps://video.igem.org/w/pZEc9GyntUpZQ6ZLbm5v84https://video.igem.org/lazy-static/thumbnails/cf4addba-b8f9-4fa5-898c-1fb04cf33caa.jpgBNU-China: An anti counterfeit video for HPV (2024) [English] This is an anti counterfeit video for HPV, which aims to eliminate public's false understanding of this infectious disease.https://static.igem.org/peertube/streaming-playlists/hls/c24f1ef1-a3e6-4863-8acc-e519de860f4d/c20df6f1-ed39-4236-a3f0-e7ad3c61a0c3-master.m3u8https://video.igem.org/videos/embed/pZEc9GyntUpZQ6ZLbm5v84460112024-10-01T14:43:36.278ZHPVInclusivityPopular ScienceYES2024 TeamsNOhttps://video.igem.org/w/ehC1X4fZv9MPbgp5XDtibthttps://video.igem.org/lazy-static/thumbnails/85d0ad01-d603-493d-8737-02ee7f73405b.jpgBNU-China: An anti counterfeit video for HIV (2024) [Chinese]BNU-China: An anti counterfeit video for HIV (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/6b98e616-111e-44e8-a6ca-5618ccbfee2b/4b508c7b-7df2-444f-a03b-5fede2c7e897-master.m3u8https://video.igem.org/videos/embed/ehC1X4fZv9MPbgp5XDtibt44002024-10-01T16:51:35.970ZInclusivityHIVPopular ScienceYES2024 TeamsNOhttps://video.igem.org/w/5Ywf9EopD6mqRqsaWqdPpHhttps://video.igem.org/lazy-static/thumbnails/8cae0839-ae03-4539-bea8-cc3f0e553d16.jpgBNU-China: An anti counterfeit video for Covid-19 (2024) [Chinese]BNU-China: An anti counterfeit video for Covid-19 (2024) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/2848d821-5aa5-47f2-9cb2-cee256097d5b/6f3587ce-8adc-49a9-8e4e-d22b1fdf0598-master.m3u8https://video.igem.org/videos/embed/5Ywf9EopD6mqRqsaWqdPpH64022024-10-01T17:32:33.417ZCovid-19InclusivityPopular ScienceYES2024 TeamsNOhttps://video.igem.org/w/7t72vPL8mANq4mqqpZd8nEhttps://video.igem.org/lazy-static/thumbnails/c10dcdef-14eb-4fba-bdc7-0394a0114bd9.jpgBNDS-China: Edu-ijam (2024) [English]BNDS-China: Edu-ijam (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/345fa0a1-e399-4142-bccf-8929192df8b4/07bf5878-1735-4506-aed5-2e0b69374d62-master.m3u8https://video.igem.org/videos/embed/7t72vPL8mANq4mqqpZd8nE3200302024-10-01T14:11:17.102ZYES2024 TeamsNOhttps://video.igem.org/w/rJxE5Q2zdPLJihhh9bkeeHhttps://video.igem.org/lazy-static/thumbnails/2b913313-d0e7-40db-92c3-3c3136e797e1.jpgCornell: Learning About Oxidation (2024) [English]Policy and Practice from Team Cornell 2024 teaching about oxidation! https://2024.igem.wiki/cornell/https://static.igem.org/peertube/streaming-playlists/hls/d06536c3-4976-4d89-b282-6e5c23bcdc87/9c253918-578f-4fab-ad97-35b671e55387-master.m3u8https://video.igem.org/videos/embed/rJxE5Q2zdPLJihhh9bkeeH354072024-10-01T15:04:59.011ZYES2024 TeamsNOhttps://video.igem.org/w/ivjiQmvCNNp2qbVqx8qAMghttps://video.igem.org/lazy-static/thumbnails/8e8f9c92-9962-4f29-9c4c-5b2b7f4746d0.jpgCornell: Learning About Capillary Action (2024) [English]Team Cornell 2024's Policy and Practice Team teaches the public about capillary action! https://2024.igem.wiki/cornell/https://static.igem.org/peertube/streaming-playlists/hls/8dc3357c-ab99-4b0d-85fb-0dc8cd276f19/cabf59c5-1725-40a2-96c0-3b7db3ae4d31-master.m3u8https://video.igem.org/videos/embed/ivjiQmvCNNp2qbVqx8qAMg317082024-10-01T15:16:22.140ZYES2024 TeamsNOhttps://video.igem.org/w/fa5RPYgNJbmCJVp8X2mReahttps://video.igem.org/lazy-static/thumbnails/75d14b2f-5e03-4056-b78c-d83ed4ddc858.jpgCornell: Learning About Yeast (2024) [English]Team Cornell 2024's Policy and Practice team teaching about yeast, a crucial part of our project Oncurex! https://2024.igem.wiki/cornell/https://static.igem.org/peertube/streaming-playlists/hls/72a4a133-4a8d-44c5-99c7-0d3681c90aaf/1c903c1f-dcfd-4759-afa3-f6dea99ff821-master.m3u8https://video.igem.org/videos/embed/fa5RPYgNJbmCJVp8X2mRea324072024-10-01T15:28:30.244ZYES2024 TeamsNOhttps://video.igem.org/w/8UWc2Yu97EfqDHRYfYm73Ghttps://video.igem.org/lazy-static/thumbnails/399a26c4-7bc2-4ceb-9dbe-c8b66c451225.jpgUChicago: spinning_vlp (2024)This is a short rendering of a spinning virus-like particle, used on the landing page of https://2024.igem.wiki/uchicago/, the University of Chicago iGEM team's 2024 wiki page! The rendering was generated by one of our design leads and is original content.https://static.igem.org/peertube/streaming-playlists/hls/40140ae6-b9ae-4645-8860-4878d324c054/c2ce6b5b-129f-41e0-a68e-04fefcdd6425-master.m3u8https://video.igem.org/videos/embed/8UWc2Yu97EfqDHRYfYm73G110542024-10-01T15:28:19.257ZYES2024 TeamsNOhttps://video.igem.org/w/fFNPa4UNFkWrtMqsfyBBaQhttps://video.igem.org/lazy-static/thumbnails/7046f13a-ea47-458f-8d98-cfc06337ff14.jpgULethbridge: Nanobody_and_pbEL04_25C_300ns (2024)MD simulation using AMBER of the complex of Nanobody and PbEL04 run at 25C for 300ns.https://static.igem.org/peertube/streaming-playlists/hls/76eecc3e-a612-4392-92e4-1965f4311fde/a18c8957-0088-4cd5-a267-69201964150e-master.m3u8https://video.igem.org/videos/embed/fFNPa4UNFkWrtMqsfyBBaQ200152024-10-01T18:06:04.005ZYES2024 TeamsNOhttps://video.igem.org/w/3eutYxw6UcLmsq2J4GanoXhttps://video.igem.org/lazy-static/thumbnails/93666151-3502-459f-8385-87d466c317d2.jpgUBC-Vancouver: Microfluidic Simulation Tutorial (2024) [English]This tutorial demonstrates how to set up and run a flow simulation project in SolidWorks for our microfluidic chips. https://static.igem.org/peertube/streaming-playlists/hls/12147fca-b4f9-402e-ba1c-4520198a1cef/72ac81f7-c646-423e-bdab-1c081f211280-master.m3u8https://video.igem.org/videos/embed/3eutYxw6UcLmsq2J4GanoX2960202024-10-01T15:58:37.257ZYES2024 TeamsNOhttps://video.igem.org/w/9Upo5QxaxoerXy7um3jsrHhttps://video.igem.org/lazy-static/thumbnails/17016797-1da0-4066-b472-dfee46b8d8da.jpgUBC-Vancouver: Microfluidic Chip Testing (2024) [English]This video provides a guide for testing our microfluidic chips.https://static.igem.org/peertube/streaming-playlists/hls/481a31b8-440a-45fc-9686-78f269b68ceb/5e156571-847f-44e1-b799-bd63548ed72a-master.m3u8https://video.igem.org/videos/embed/9Upo5QxaxoerXy7um3jsrH1550232024-10-01T16:01:33.675ZYES2024 TeamsNOhttps://video.igem.org/w/mxUgcRd5pLVbYVnroMaKefhttps://video.igem.org/lazy-static/thumbnails/8bdc7cfd-7834-4bc3-83e7-ef1ce1b63ba3.jpgFSU: Expo Media Reel (2024) [English]This video highlights the local education event our team hosted at the Challenger Learning Center in Tallahassee, and includes footage of the exhibits, activities, and IMAX presentation.https://static.igem.org/peertube/streaming-playlists/hls/a66b09aa-9dbf-48b2-8872-44707e0998c4/91d2c6aa-6e9e-405c-bffc-319fb203c1e6-master.m3u8https://video.igem.org/videos/embed/mxUgcRd5pLVbYVnroMaKef360172024-10-01T16:25:12.926ZFSU iGEMTallahassee Biotechnology ExpoBiotechnology ExpoYES2024 TeamsNOhttps://video.igem.org/w/aGAMVkEXBv4Ak7zrziAEQAhttps://video.igem.org/lazy-static/thumbnails/fbec1a82-927d-45f1-a901-f05667d336a6.jpgHunanU: home (2024) [English]HunanU: home (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/4e8d709d-260c-4884-8e1d-61ccd197da1a/28107602-db49-46c9-b9c6-90569e0ac257-master.m3u8https://video.igem.org/videos/embed/aGAMVkEXBv4Ak7zrziAEQA410912024-10-01T16:29:00.166ZYES2024 TeamsNOhttps://video.igem.org/w/vd1xPmnGdoz7LiNo43iKBPhttps://video.igem.org/lazy-static/thumbnails/4027606d-9071-4a73-be81-bf11b88b1635.jpgBielefeld-CeBiTec: Hamburg Teambuilding (2024)Teambuilding in Hamburg for iGEM Team Bielefeld 2024 PreCysehttps://static.igem.org/peertube/streaming-playlists/hls/ec8648d1-1f6f-4105-aa22-2a706f98ca51/bbea4598-d514-4ce4-8e3a-9ca0828fbbe3-master.m3u8https://video.igem.org/videos/embed/vd1xPmnGdoz7LiNo43iKBP44072024-10-01T16:54:08.110ZYES2024 TeamsNOhttps://video.igem.org/w/m75qw4yMqnAp3NvDaXiCfxhttps://video.igem.org/lazy-static/thumbnails/14f671d6-4eb2-4d00-9b6a-eccb8102cfa0.jpgAustin-utexas: Living with Celiac: Celiac Disease Patient Podcast - Holly Urbach (2024) [English]In an effort to gain insight into the daily struggles of the celiac disease community, we engaged in two-way conversations with people living with celiac disease. These conversations are published in a podcast, "Living with Celiac," on Spotify in an effort to raise awareness on this issue. Podcast Editors: Ranudhi Nanayakkara, Soumya Appalla, Sushma Dadlani Wiki: https://2024.igem.wiki/austin-utexas/https://static.igem.org/peertube/streaming-playlists/hls/a2cff61f-db00-43bc-acd7-fadbb299dfd3/85eabeb4-43c8-4c45-b6a0-c39132decc6c-master.m3u8https://video.igem.org/videos/embed/m75qw4yMqnAp3NvDaXiCfx1800022024-10-01T17:36:22.788ZYES2024 TeamsNOhttps://video.igem.org/w/f1DDFitrxSoRHcBL1qGWU8https://video.igem.org/lazy-static/thumbnails/da417c2d-464a-42ca-bf5d-ed62e989b662.jpgAustin-utexas: Living with Celiac: Celiac Disease Patient Podcast - Stayce King (2024) [English]In an effort to gain insight into the daily struggles of the celiac disease community, we engaged in two-way conversations with people living with celiac disease. These conversations are published in a podcast, "Living with Celiac," on Spotify in an effort to raise awareness on this issue. Podcast Editors: Ranudhi Nanayakkara, Soumya Appalla, Sushma Dadlani Wiki: https://2024.igem.wiki/austin-utexas/https://static.igem.org/peertube/streaming-playlists/hls/717724c5-83ad-489e-b282-be67a8c68ca7/5d544df7-bbd9-4db1-b26a-4d647bd8aeda-master.m3u8https://video.igem.org/videos/embed/f1DDFitrxSoRHcBL1qGWU811860112024-10-01T17:36:45.196ZYES2024 TeamsNOhttps://video.igem.org/w/dQqtpFvUAqwqtEyaqMdb25https://video.igem.org/lazy-static/thumbnails/5032d9f0-c35e-41ba-b706-887f739447d2.jpgAustin-utexas: Living with Celiac: Celiac Disease Patient Podcast - Hailey Laskowski (2024) [Engl...In an effort to gain insight into the daily struggles of the celiac disease community, we engaged in two-way conversations with people living with celiac disease. These conversations are published in a podcast, "Living with Celiac," on Spotify in an effort to raise awareness on this issue. Podcast Editors: Ranudhi Nanayakkara, Soumya Appalla, Sushma Dadlani Wiki: https://2024.igem.wiki/austin-utexas/https://static.igem.org/peertube/streaming-playlists/hls/67f07256-4576-4dd3-97ae-1b5578826c96/9ce14963-0dfe-4847-8fec-d728f4d0eb1c-master.m3u8https://video.igem.org/videos/embed/dQqtpFvUAqwqtEyaqMdb251213042024-10-01T17:37:03.861ZYES2024 TeamsNOhttps://video.igem.org/w/bQHaHHz6SZj58NX4TXkU7Fhttps://video.igem.org/lazy-static/thumbnails/5cf7723c-3e31-4f10-92d1-2083f5030368.jpgMIT-MAHE: Docking - P43 (unoptimized) with SigB (2024)Docking of unoptimized P43 promoter with the Sigma factor B protein as performed on Hdock & visualized on PyMolhttps://static.igem.org/peertube/streaming-playlists/hls/57c8753e-124c-4dae-9ce3-817cad9b635b/469c5e27-4d02-46ea-abcb-92403a20f78c-master.m3u8https://video.igem.org/videos/embed/bQHaHHz6SZj58NX4TXkU7F6012024-10-01T17:28:13.923ZYES2024 TeamsNOhttps://video.igem.org/w/bquj5izujXpW34d5vwCcQMhttps://video.igem.org/lazy-static/thumbnails/c1494ab9-1e86-4173-8715-9b319da68fdd.jpgMIT-MAHE: Docking - P43 (optimized) with SigA (2024)Docking of optimized P43 promoter with the Sigma factor A protein as performed on Hdock & visualized on PyMolhttps://static.igem.org/peertube/streaming-playlists/hls/5466af4a-fed8-4e3b-8bcb-910edfe7f239/30b01a69-f742-43ab-80c2-7e3f2854371f-master.m3u8https://video.igem.org/videos/embed/bquj5izujXpW34d5vwCcQM6012024-10-01T17:28:20.186ZYES2024 TeamsNOhttps://video.igem.org/w/x9jqDusQv5K8mG6L1HyMSshttps://video.igem.org/lazy-static/thumbnails/19ccaf66-6ff1-433c-af28-29ae47f8e2df.jpgMIT-MAHE: Docking - P43 (optimized) with SigB (2024)Docking of optimized P43 promoter with the Sigma factor B protein as performed on Hdock & visualized on PyMolhttps://static.igem.org/peertube/streaming-playlists/hls/fc349a77-d581-492b-85ff-88f58a0182d2/24fd33c2-d839-4fe6-b618-9872bffcebdf-master.m3u8https://video.igem.org/videos/embed/x9jqDusQv5K8mG6L1HyMSs6002024-10-01T17:31:30.458ZYES2024 TeamsNOhttps://video.igem.org/w/x6vCduxwhKBkymis6Dk23Phttps://video.igem.org/lazy-static/thumbnails/298c319f-d253-4277-8450-bce32695d15e.jpgMIT-MAHE: Docking - P43 (unoptimized) with SigA (2024)Docking of unoptimized P43 promoter with the Sigma factor A protein as performed on Hdock & visualized on PyMolhttps://static.igem.org/peertube/streaming-playlists/hls/fbd04624-a6ec-4060-b1c4-257d8ecf0b2f/42c57c4c-a8f3-48af-8ee1-e9cb200b3e03-master.m3u8https://video.igem.org/videos/embed/x6vCduxwhKBkymis6Dk23P6012024-10-01T17:31:36.754ZYES2024 TeamsNOhttps://video.igem.org/w/anprDHna3XxU7tQ4ajzPHLhttps://video.igem.org/lazy-static/thumbnails/0b7b81cb-d353-4bd6-8efc-3a268e5feaaa.jpgMIT-MAHE: Docking - PbacA (optimized) with SigB (2024)Docking of optimized PbacA promoter with the Sigma factor B protein as performed on Hdock & visualized on PyMolhttps://static.igem.org/peertube/streaming-playlists/hls/4bdf505c-3357-4b66-8ef5-c4b722a099ba/253ab077-9848-4ce6-8536-238106a79211-master.m3u8https://video.igem.org/videos/embed/anprDHna3XxU7tQ4ajzPHL6022024-10-01T17:32:44.474ZYES2024 TeamsNOhttps://video.igem.org/w/1anLaPU2FVzzvnoNu58LTAhttps://video.igem.org/lazy-static/thumbnails/ca919c9b-4665-4b38-ae38-7299a0884707.jpgMIT-MAHE: Docking - PbacA (unoptimized) with SigB (2024)Docking of unoptimized PbacA promoter with the Sigma factor B protein as performed on Hdock & visualized on PyMolhttps://static.igem.org/peertube/streaming-playlists/hls/014f1ade-6dab-45a1-80c6-f2bb94858038/512e99f6-da5f-4940-8528-338c5aa1d198-master.m3u8https://video.igem.org/videos/embed/1anLaPU2FVzzvnoNu58LTA6012024-10-01T17:33:39.753ZYES2024 TeamsNOhttps://video.igem.org/w/uRp8zhtk186rsCS31uP5DVhttps://video.igem.org/lazy-static/thumbnails/a35debc4-7bfc-4efb-82c5-4b0179cd6bb7.jpgUppsalaUniversity: Maturation time (2024)UppsalaUniversity: Maturation time (2024)https://static.igem.org/peertube/streaming-playlists/hls/e9a594f9-eb16-460a-b78f-99409e7435bf/4b4d2c5e-b023-44db-bd3a-93b2e29ca63e-master.m3u8https://video.igem.org/videos/embed/uRp8zhtk186rsCS31uP5DV23022024-10-01T17:45:23.837ZYES2024 TeamsNOhttps://video.igem.org/w/ecHXtADfP36ir3ZcMFsJw1https://video.igem.org/lazy-static/thumbnails/8e479a03-8e4a-4280-ad4f-b4cdaa2617dc.jpgUppsalaUniversity: Maturation assay (2024)The video features a compilation of photos captured throughout our maturation assay.https://static.igem.org/peertube/streaming-playlists/hls/6ae9d734-c778-4c36-8b58-3eb1a2755494/81f5b3d0-a821-4196-bc7f-d6edaa8cc09c-master.m3u8https://video.igem.org/videos/embed/ecHXtADfP36ir3ZcMFsJw1230372024-10-01T17:48:57.658ZYES2024 TeamsNOhttps://video.igem.org/w/dqG1jNmzetuZxwwMbe57Fchttps://video.igem.org/lazy-static/thumbnails/6c89c4cf-4da7-489d-a17e-e52f16e98319.jpgHeidelberg: rGCN4_pulling (2024)This is the video export of the visualization of a Trajectory of an Pulling siumlation. Displayed are a leucin zipper and a bound dsDNA, which is pulled through the simulation box. There is no audio content in this videohttps://static.igem.org/peertube/streaming-playlists/hls/64a02b31-3665-4ffc-8ca6-4f9831916ea9/f4e3c599-36d2-4212-b281-53c6ff5e8e03-master.m3u8https://video.igem.org/videos/embed/dqG1jNmzetuZxwwMbe57Fc40072024-10-01T17:59:28.580Zmd_simulation_igem_heidelbergYES2024 TeamsNOhttps://video.igem.org/w/787GNfbJ8cbaPbDA7neNrAhttps://video.igem.org/lazy-static/thumbnails/cea1803e-449e-4781-a2fd-393b58db0df7.jpgMunich: Data Explorer Software (2024) [English]This is a demo video of iGEM Munich 2024 team software called iGEM Data Explorer.https://static.igem.org/peertube/streaming-playlists/hls/31952b62-454c-44f6-993f-cb2d2977d75c/f71547e6-f94d-4f14-abc8-920e40d2327e-master.m3u8https://video.igem.org/videos/embed/787GNfbJ8cbaPbDA7neNrA1530262024-10-01T18:23:56.693ZYES2024 TeamsNOhttps://video.igem.org/w/gBP5vZCPmrgSeEQZqtAvn2https://video.igem.org/lazy-static/thumbnails/6d2979fc-6eef-475d-b87f-10fc29fdf387.jpgUppsalaUniversity: Maturation assay 2 (2024)The video features a compilation of photos captured throughout our second maturation assay.https://static.igem.org/peertube/streaming-playlists/hls/7e791fe7-7015-43a5-a178-b15cc0c7c717/76f7714b-57d8-4fcb-997c-4147da8b7eed-master.m3u8https://video.igem.org/videos/embed/gBP5vZCPmrgSeEQZqtAvn2120102024-10-01T18:26:38.350ZYES2024 TeamsNOhttps://video.igem.org/w/aCvNDH2yb9RrjVN47vptDshttps://video.igem.org/lazy-static/thumbnails/dc56ed3d-5159-4d0f-bce8-35ecdeb5eeff.jpgThailand-RIS: IHP_mrkomsoninterview4vid (2024) [Thai]Thailand-RIS: IHP_mrkomsoninterview4vid (2024) [Thai]https://static.igem.org/peertube/streaming-playlists/hls/4dfb6427-0038-43b3-9e32-73e49161ac30/fb7ce63e-325b-402c-9566-13fe0a3c7d7b-master.m3u8https://video.igem.org/videos/embed/aCvNDH2yb9RrjVN47vptDs395032024-10-01T18:34:21.634ZYES2024 TeamsNOhttps://video.igem.org/w/qcFWvsDHi5iHGXeEvQtbQjhttps://video.igem.org/lazy-static/thumbnails/7344ba05-81a9-4304-92f5-101c021b3255.jpgMunich: progRAM readout system (2024) [English]The animated video shows how the readout system of our project progRAM works based on the deamination of three sequential start codons https://static.igem.org/peertube/streaming-playlists/hls/c3fd1f82-3bc8-4587-82d3-0a882ee3ffb2/d63daf8e-0308-47a6-b6ae-00bda1041530-master.m3u8https://video.igem.org/videos/embed/qcFWvsDHi5iHGXeEvQtbQj18022024-10-01T18:49:02.709ZYES2024 TeamsNOhttps://video.igem.org/w/pjpSKt3Em9BhvCaoAoUtHahttps://video.igem.org/lazy-static/thumbnails/5f913401-4731-49cc-ac23-8a3071befe87.jpgCornell: Home Page Background (2024)A muted video to be used as a background for Team Cornell's home page. Team Cornell members are doing various lab work, such as pipetting, walking through our lab, and testing our bioreactor. https://2024.igem.wiki/cornellhttps://static.igem.org/peertube/streaming-playlists/hls/bcd44a5f-da77-4515-a96b-d152e62330df/b472c7f1-e61a-45a1-ba64-f0f2d69e414a-master.m3u8https://video.igem.org/videos/embed/pjpSKt3Em9BhvCaoAoUtHa2903332024-10-01T18:51:42.211ZYES2024 TeamsNOhttps://video.igem.org/w/cQWthJEbLARDwV7R9rvM6chttps://video.igem.org/lazy-static/thumbnails/0b223375-2d07-4bec-bdfc-a0f30bfc1054.jpgCity-of-London-UK: Alignate Beads (2024)Alginate Beads in action!https://static.igem.org/peertube/streaming-playlists/hls/5fe9cb7b-8274-4308-b4aa-da1f9c0ea8d9/8a031b8f-0fd8-47ae-858f-2f21b5ee314d-master.m3u8https://video.igem.org/videos/embed/cQWthJEbLARDwV7R9rvM6c26022024-10-01T19:55:03.406ZYES2024 TeamsNOhttps://video.igem.org/w/3BnysPTSjT79fFF5z39f2bhttps://video.igem.org/lazy-static/thumbnails/59111c9c-2f4a-4ad6-b62d-4d7c3ba5bd8e.jpgRochester: Automated Screen Printer Drying Station (2024)Video documenting Automated Screen Printer Drying Stationhttps://static.igem.org/peertube/streaming-playlists/hls/1522988d-4ffe-4f25-a463-5689a68012bc/c1a56c74-140e-40f9-8ead-46ba31c5e0d6-master.m3u8https://video.igem.org/videos/embed/3BnysPTSjT79fFF5z39f2b8012024-10-01T20:11:51.236ZYES2024 TeamsNOhttps://video.igem.org/w/wHQqKqhmjYen85LK7ev6Mrhttps://video.igem.org/lazy-static/thumbnails/0e929b08-dd8c-426a-983f-38b3a863afac.jpgMIT-MAHE: Understanding Vietnam's Coffee Culture (2024) [English]A brief talk with cafe owner in Vietnam to understand the cultural impact of coffeehttps://static.igem.org/peertube/streaming-playlists/hls/f8c97f96-1640-4815-a86f-7bc04e4f7ed7/50eee4f6-01fc-4944-968e-2f874d3b5b6e-master.m3u8https://video.igem.org/videos/embed/wHQqKqhmjYen85LK7ev6Mr6120112024-10-01T20:25:33.107ZYES2024 TeamsNOhttps://video.igem.org/w/fjd5MdKB4JJLkWYW4pfzaghttps://video.igem.org/lazy-static/thumbnails/462ef09c-9ff2-456d-850d-789f7b3fc9fc.jpgRochester: Full Automated Screen Printer Movement (2024)Automated Screen Printer movement of all components. https://2024.igem.wiki/rochester/index.html https://static.igem.org/peertube/streaming-playlists/hls/73eac670-1d1a-4a60-8155-1ef75f8370bd/7696675d-348a-491a-b654-77e885dd209a-master.m3u8https://video.igem.org/videos/embed/fjd5MdKB4JJLkWYW4pfzag270242024-10-01T20:26:07.121ZYES2024 TeamsNOhttps://video.igem.org/w/3YGnv9SVs7jBRQSRCXqvochttps://video.igem.org/lazy-static/thumbnails/aa895112-3eea-4ec0-b770-4a25f390226b.jpgMunich: Deamination with Cas13b and ADAR in progRAM (2024)The animation shows how deaminating an adenosine with a dCas13b and ADARdd complex works in our system progRAMhttps://static.igem.org/peertube/streaming-playlists/hls/181ccecb-4aba-4db6-81f6-f2d78490f40b/8e8c8b73-c266-485c-854c-debc25c1701b-master.m3u8https://video.igem.org/videos/embed/3YGnv9SVs7jBRQSRCXqvoc160552024-10-01T20:26:45.358ZYES2024 TeamsNOhttps://video.igem.org/w/5ktsezpK79EgGgqFFVpFRAhttps://video.igem.org/lazy-static/thumbnails/aff5cc92-641c-45cf-91a5-54a18dc3f086.jpgCornell: PD Wet Run (2024)Cornell: PD Wet Run (2024)https://static.igem.org/peertube/streaming-playlists/hls/231c9ab7-3591-4f98-a4f6-e9f0938bdfc0/09bd9c93-b698-4bfd-95e7-72f0ba8f8640-master.m3u8https://video.igem.org/videos/embed/5ktsezpK79EgGgqFFVpFRA30302024-10-01T21:10:13.119ZYES2024 TeamsNOhttps://video.igem.org/w/7MppAKHNuT5YWHPG5xonQLhttps://video.igem.org/lazy-static/thumbnails/03372575-fbfc-4266-8147-450a83f9ade7.jpgHeidelberg: GCN4-MD (2024)MD simulation between GCN4 leucine zipper and DNA target site. For more information see our model page: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/36edba03-5fef-4b19-9b2f-2c802e126660/df1d728d-ef13-443a-b8ec-ef82a34718fb-master.m3u8https://video.igem.org/videos/embed/7MppAKHNuT5YWHPG5xonQL80042024-10-01T21:32:30.492ZDNA-Protein bindingMD simulationYES2024 TeamsNOhttps://video.igem.org/w/kiEH3C7T2opNsQqthbp8LDhttps://video.igem.org/lazy-static/thumbnails/b3fa2795-f633-426e-b28a-2af6af677126.jpgHeidelberg: rGCN4-MD (2024)MD simulation between rGCN4 leucine zipper and DNA target site. For more information see our model page: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/9c552211-b71f-4083-92dc-fab599e26511/42c0b206-f5fd-4a43-814f-de0fbdd55d23-master.m3u8https://video.igem.org/videos/embed/kiEH3C7T2opNsQqthbp8LD80012024-10-01T21:35:06.693ZProtein-DNA interactionProtein MD simulationYES2024 TeamsNOhttps://video.igem.org/w/bvNUWch8mQYYirejg17cXBhttps://video.igem.org/lazy-static/thumbnails/b429ad86-ede7-4e92-b28a-54eeddc77579.jpgCNPEM-BRAZIL: liftoff (2024)Video demonstrating the liftoff process of the sensor fabricationhttps://static.igem.org/peertube/streaming-playlists/hls/5524ddec-2c77-4c9c-bace-2af7a46aaa75/84650544-2577-4282-89fe-02ac0530db00-master.m3u8https://video.igem.org/videos/embed/bvNUWch8mQYYirejg17cXB28042024-10-01T21:39:37.332ZYES2024 TeamsNOhttps://video.igem.org/w/iTHciaVfM3x8W6CfP4gYuHhttps://video.igem.org/lazy-static/thumbnails/c145f716-666c-40ed-b8ed-a39e9ae3d7e0.jpgCNPEM-BRAZIL: development (2024)Video demonstrating the development of photoresist on the surface of the sensorhttps://static.igem.org/peertube/streaming-playlists/hls/90e3ad39-beea-4719-86cb-2152a606f4c9/1dc48bfd-11cc-4a64-8d31-6371e742cd06-master.m3u8https://video.igem.org/videos/embed/iTHciaVfM3x8W6CfP4gYuH72062024-10-01T21:44:47.978ZYES2024 TeamsNOhttps://video.igem.org/w/kLfDnpL6P8ckJqbkogRJEYhttps://video.igem.org/lazy-static/thumbnails/2593c952-ca4b-4084-a1cf-34cbac84c1fb.jpgHeidelberg: bGCN4-MD (2024)MD simulation between bGCN4 leucine zipper and two DNA target site. For more information see our model page: https://2024.igem.wiki/heidelberg/modelhttps://static.igem.org/peertube/streaming-playlists/hls/a00b62a2-3330-4a5a-85ee-f6ed8fc361d4/c1c64286-0159-4c3e-8114-646b88596839-master.m3u8https://video.igem.org/videos/embed/kLfDnpL6P8ckJqbkogRJEY80032024-10-01T21:44:43.275ZProtein-DNA interactionMD simulationYES2024 TeamsNOhttps://video.igem.org/w/8ZrUnFYDyL37cdk4cFJfkFhttps://video.igem.org/lazy-static/thumbnails/3f54889e-2967-4e39-8b3f-a5555e69dd89.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Aachen (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Aachen (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/40b5542c-4271-4e87-9b5c-4353f4427e8d/966a54aa-a22c-4379-96b9-a9fd8ca97864-master.m3u8https://video.igem.org/videos/embed/8ZrUnFYDyL37cdk4cFJfkF882092024-10-01T22:57:44.130ZYES2024 TeamsNOhttps://video.igem.org/w/v4LCXoTwpHggdzGNyWbSo6https://video.igem.org/lazy-static/thumbnails/079be90f-18ba-4eac-9bb8-d27b026fa963.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Aalto (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Aalto (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/eb5fc2d5-cc76-45b1-b97b-bc4951157179/addc55a6-775f-40ca-967b-a2fd7c7e3552-master.m3u8https://video.igem.org/videos/embed/v4LCXoTwpHggdzGNyWbSo6908002024-10-01T23:06:07.951ZYES2024 TeamsNOhttps://video.igem.org/w/m68qVevnD824mipsd3uvAvhttps://video.igem.org/lazy-static/thumbnails/2f1b73d0-415f-4eb9-b568-eaaea31b9e05.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Abu Dhabi (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Abu Dhabi (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/a2ae121a-5307-4472-87ae-f271fab08fe5/d8babd63-a1e1-472a-8e2d-6d6092f697ff-master.m3u8https://video.igem.org/videos/embed/m68qVevnD824mipsd3uvAv801012024-10-01T23:06:31.023ZYES2024 TeamsNOhttps://video.igem.org/w/pr7ncRwT72QMsWn2snH1SNhttps://video.igem.org/lazy-static/thumbnails/19c2db62-9a93-4091-a5c7-7647c978cf9f.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Braunschweig (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Braunschweig (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/bdc3b4d4-614f-4027-ae79-486d42b7213a/49c2662e-95e7-4240-b625-7d71966e528f-master.m3u8https://video.igem.org/videos/embed/pr7ncRwT72QMsWn2snH1SN943002024-10-02T02:50:36.555ZYES2024 TeamsNOhttps://video.igem.org/w/eEFJJV8Xkm7zCLBhzeX9jWhttps://video.igem.org/lazy-static/thumbnails/bb6b9b4c-87d1-4356-869a-4ae8a0492a74.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Darmstadt (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Darmstadt (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/6ead8df8-6a08-4e3a-a2aa-a5f2798adaf2/a5748aa3-0326-4b3d-b424-b0ee0f5cfd4f-master.m3u8https://video.igem.org/videos/embed/eEFJJV8Xkm7zCLBhzeX9jW1031072024-10-02T02:35:39.574ZYES2024 TeamsNOhttps://video.igem.org/w/rP65KE5cGjvrnsHtghfcDBhttps://video.igem.org/lazy-static/thumbnails/80101308-72bb-4808-b00f-0f2385612ad0.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Denmark (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Denmark (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/d1078e38-6b90-4493-b25c-4e3530425be1/c5f90580-4f38-4d7d-9dd8-16cb92f44b3a-master.m3u8https://video.igem.org/videos/embed/rP65KE5cGjvrnsHtghfcDB1010002024-10-02T02:18:30.923ZYES2024 TeamsNOhttps://video.igem.org/w/36F9sS5427bF4RUAeJ2RXChttps://video.igem.org/lazy-static/thumbnails/b82e1413-454b-4a8c-8606-d3a79920d009.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Dresden (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Dresden (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/10fd1ee6-13f8-4120-8e21-b0b3c9a5e9e6/bb7103f0-bbee-467f-b0d4-bd87bb21af8c-master.m3u8https://video.igem.org/videos/embed/36F9sS5427bF4RUAeJ2RXC978032024-10-01T23:22:21.451ZYES2024 TeamsNOhttps://video.igem.org/w/7kkrPcbxsBVzBbqsVNBkVkhttps://video.igem.org/lazy-static/thumbnails/ec19e48e-211e-4027-aec2-ea182d7811a3.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Düsseldorf (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Düsseldorf (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/3349f270-f290-4873-9231-09dfc9d9deb9/f6665165-caf6-4f7c-a96a-49d4b1bfabdb-master.m3u8https://video.igem.org/videos/embed/7kkrPcbxsBVzBbqsVNBkVk1007082024-10-02T02:07:21.414ZYES2024 TeamsNOhttps://video.igem.org/w/457ccrfv8RxwXEncbZ8NMQhttps://video.igem.org/lazy-static/thumbnails/76cfee8a-4069-4474-9166-98bf7e7b5f15.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Eindhoven (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Eindhoven (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/18de3529-8f72-4bcc-99ae-e2af20195c02/0fc60487-8612-4ae5-8c60-1a060012a87a-master.m3u8https://video.igem.org/videos/embed/457ccrfv8RxwXEncbZ8NMQ957012024-10-02T01:52:54.997ZYES2024 TeamsNOhttps://video.igem.org/w/dj1FQA1iKLWFowXKXfqKCPhttps://video.igem.org/lazy-static/thumbnails/cb5725d5-55cb-4d31-b178-4a8cfeb2446e.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Frankfurt (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Frankfurt (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/63b1799e-36f4-4d00-8c11-de48b89b61a3/707dc17b-999a-49f3-aa97-056b6d7b60c6-master.m3u8https://video.igem.org/videos/embed/dj1FQA1iKLWFowXKXfqKCP9180122024-10-02T01:42:03.086ZYES2024 TeamsNOhttps://video.igem.org/w/4vRtzWF6siWhvuRLQ7pTekhttps://video.igem.org/lazy-static/thumbnails/e0c93a1a-5019-4cd1-b74e-2a869a141553.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Freiburg (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Freiburg (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/1c7679c9-d9d6-4613-bb3f-ce76350b9aa9/83963738-acaf-4e17-89ad-13aefd6ea26d-master.m3u8https://video.igem.org/videos/embed/4vRtzWF6siWhvuRLQ7pTek632052024-10-02T01:31:59.885ZYES2024 TeamsNOhttps://video.igem.org/w/cCQCc6XiB9BqHRDjaBuDkwhttps://video.igem.org/lazy-static/thumbnails/6d763b5b-37f3-4724-b936-7c62cecfd4eb.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Hamburg (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Hamburg (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/5e39443e-7c71-4585-851f-841fc64b7ad0/d9be515a-b555-49c8-bd36-572d31d0c7e4-master.m3u8https://video.igem.org/videos/embed/cCQCc6XiB9BqHRDjaBuDkw986012024-10-02T01:20:59.692ZYES2024 TeamsNOhttps://video.igem.org/w/dzUrAZbtMr126YfJx13rCGhttps://video.igem.org/lazy-static/thumbnails/94596348-836b-4077-8ce5-416b169fc511.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Hannover (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Hannover (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/65e986c9-80ec-4c43-a4a8-23664d680b04/a9d61984-ffa4-4f11-9382-1c3860a14abf-master.m3u8https://video.igem.org/videos/embed/dzUrAZbtMr126YfJx13rCG929012024-10-01T23:42:21.772ZYES2024 TeamsNOhttps://video.igem.org/w/3sn7ELZxtpXm7gPVPMD3hmhttps://video.igem.org/lazy-static/thumbnails/107f84a1-bea9-4979-82e8-7a6785aedfe0.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Leuven (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Leuven (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/13e0a0be-6c64-4339-b893-10aacbbc05b4/ff040f47-7a4f-4da9-9d95-146a3f574787-master.m3u8https://video.igem.org/videos/embed/3sn7ELZxtpXm7gPVPMD3hm927002024-10-02T01:09:33.329ZYES2024 TeamsNOhttps://video.igem.org/w/jU2G3xnNnEsohLvj8gwnXFhttps://video.igem.org/lazy-static/thumbnails/9ba4b315-a77c-4bad-bb78-8e8ea9c4af9e.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Marburg (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Marburg (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/990836b3-3a23-44b6-afb9-c3bf5eb40191/043ce5e9-0390-4384-865f-9d22a2d658c6-master.m3u8https://video.igem.org/videos/embed/jU2G3xnNnEsohLvj8gwnXF868022024-10-02T00:24:47.917ZYES2024 TeamsNOhttps://video.igem.org/w/m7aP3oNLvm5EVbZP6dGvBMhttps://video.igem.org/lazy-static/thumbnails/e2d7dad0-fbbf-4f3d-a0f1-a321928cc842.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Münster (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Münster (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/a2d34837-9378-46b1-ac99-3ebc85bea48f/f831893d-86d1-4379-bf49-13a21ca5b291-master.m3u8https://video.igem.org/videos/embed/m7aP3oNLvm5EVbZP6dGvBM1000002024-10-02T00:15:01.878ZYES2024 TeamsNOhttps://video.igem.org/w/oGBYZsAeG7s5eFtxmYQ2Zwhttps://video.igem.org/lazy-static/thumbnails/747288c5-cf63-4dc6-bdce-ca7bc5f73b6a.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Stockholm (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Stockholm (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/b7d4f9f4-43f1-4cca-b542-de34c864a3ec/1f62ffb3-580d-4d7e-b7e5-46c90361c1fd-master.m3u8https://video.igem.org/videos/embed/oGBYZsAeG7s5eFtxmYQ2Zw654002024-10-02T00:03:57.439ZYES2024 TeamsNOhttps://video.igem.org/w/6NqwoQ2iEBRthVWFue7XBphttps://video.igem.org/lazy-static/thumbnails/4e3c9de7-16ce-46f2-b858-95179a42dcda.jpgBielefeld-CeBiTec: BFH Meetup - Project Presentation Wageningen (2024) [English]Bielefeld-CeBiTec: BFH Meetup - Project Presentation Wageningen (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/2ef9052b-177c-4821-8728-f1b7a75cc2c1/74922486-af97-4bc4-8709-a136537da585-master.m3u8https://video.igem.org/videos/embed/6NqwoQ2iEBRthVWFue7XBp775002024-10-01T23:53:23.111ZYES2024 TeamsNOhttps://video.igem.org/w/dnbpPtTYoA1m2o4StdEGbphttps://video.igem.org/lazy-static/thumbnails/9368e9a7-bccd-45b4-ae98-c9fdf9495ada.jpgRochester: Base Rotation Automated Screen Printer (2024)Base Rotation of the Automated Screen Printer. https://2024.igem.wiki/rochester/index.html https://static.igem.org/peertube/streaming-playlists/hls/6422b2ea-82b0-41b2-a2f2-a0d6de18ee8b/9aac9031-9ce7-44f2-8da2-1f479c7a824d-master.m3u8https://video.igem.org/videos/embed/dnbpPtTYoA1m2o4StdEGbp15082024-10-01T23:17:22.542ZYES2024 TeamsNOhttps://video.igem.org/w/9JuciLAxgA5pmsmLm8koRfhttps://video.igem.org/lazy-static/thumbnails/ce7a2d34-d3ec-47a4-b38f-24db5b1218f6.jpgRochester: Linear Movement Automated Screen Printer (2024)Linear Movement of the Automated Screen Printer https://2024.igem.wiki/rochester/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/46b7b92e-9a59-42a5-8382-600f5e8e0c28/6824072e-790a-4a69-bc28-f8ab5c7364c7-master.m3u8https://video.igem.org/videos/embed/9JuciLAxgA5pmsmLm8koRf6032024-10-01T23:16:54.854ZYES2024 TeamsNOhttps://video.igem.org/w/6nZnzqVvsbsw5gZt8snEvXhttps://video.igem.org/lazy-static/thumbnails/21588064-693f-455b-a995-ada850ed1dfa.jpgMcGill: Nucle.io Compiler Demonstration (2024) [English]This is a demonstration video presenting how to set up and use the Nucleio Compiler, McGill iGEM's 2024 software tool made to design one-pot DNA computing architectures in one spot. With the Nucleio Compiler, you can design winner-take-all or logic circuit DNA architectures through an interactive interface, upon which the strands required to build the system as well as simulations to assess the circuit’s performance will be automatically generated. As such, the Nucleio Compiler will greatly assist DNA computing wet lab workflows, helping accelerate research in the field. Visit our wiki for more information: https://2024.igem.wiki/mcgill/software We hope this video is helpful and we can't wait to see what DNA circuits you build!https://static.igem.org/peertube/streaming-playlists/hls/2b8fab52-572a-493f-a2e8-e9725205c8a9/1826c0e0-4698-455d-b141-017586607b10-master.m3u8https://video.igem.org/videos/embed/6nZnzqVvsbsw5gZt8snEvX3900922024-10-01T23:40:12.874ZMolecular circuitsMcGillDNA computingsoftwareYES2024 TeamsNOhttps://video.igem.org/w/swiLNyzVo2D6DNaeUxUJ2Thttps://video.igem.org/lazy-static/thumbnails/429b6d8d-e304-48a4-ac72-3c4bf0948a35.jpgTUM-Straubing: Lyophilisation Tutorial (2024) [English]Here is a tutorial of how to perform lyophilisation like we did within the frame-work of our project! To avoid future teams from making crucial mistakes, we made when we employed this method the first time around. https://static.igem.org/peertube/streaming-playlists/hls/d6c8def5-2bc0-41ed-8f97-bb979818dda5/e08b1964-a80c-4e29-b117-aacc4936ec48-master.m3u8https://video.igem.org/videos/embed/swiLNyzVo2D6DNaeUxUJ2T2440282024-10-01T23:49:32.551ZYES2024 TeamsNOhttps://video.igem.org/w/bkqKR1dH5ZAJMfkUhC2arrhttps://video.igem.org/lazy-static/thumbnails/cdc952b5-056b-4387-83d5-0ee99dc058f9.jpgBostonU: NOVA User Interface (2024)Boston U 2024 Nova GUI, going on https://2024.igem.wiki/bostonu/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/53b1c64d-c138-4fd3-95f8-46d970bb5aef/79c4e530-0de5-47e2-a311-b5c530a51b59-master.m3u8https://video.igem.org/videos/embed/bkqKR1dH5ZAJMfkUhC2arr360142024-10-02T00:04:35.122ZYES2024 TeamsNOhttps://video.igem.org/w/ePkHDSmPhqCzdVFbfKfPj3https://video.igem.org/lazy-static/thumbnails/f0f5b4b5-03d7-43da-ae1a-a97d7b638da1.jpgUBC-Vancouver: DXF Tutorial (2024) [English]Thie video provides guidance on making a DXF file for laser cutting in SolidWorks.https://static.igem.org/peertube/streaming-playlists/hls/6fe2e958-f5f4-47db-92bc-cd929027a552/f3754a28-acc0-46ca-94f4-c018ed22264e-master.m3u8https://video.igem.org/videos/embed/ePkHDSmPhqCzdVFbfKfPj31650192024-10-02T00:43:31.052ZYES2024 TeamsNOhttps://video.igem.org/w/aRuN8vTKMbSqmvzpovPzaohttps://video.igem.org/lazy-static/thumbnails/f21bcf62-f27d-4c38-8044-d962a67f890c.jpgBostonU: Final Hardware (2024)BostonU 2024 Final Hardware Outer Video to go on the https://2024.igem.wiki/bostonu/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/4fcb703c-c30c-4c76-9212-47bd248536ec/ae1dbd0d-af56-4dac-86eb-26a921c416cf-master.m3u8https://video.igem.org/videos/embed/aRuN8vTKMbSqmvzpovPzao210212024-10-02T01:19:06.201ZYES2024 TeamsNOhttps://video.igem.org/w/fzLYG1dT8Ew1KLfUFy8FdYhttps://video.igem.org/lazy-static/thumbnails/de7adf41-82d9-464c-bcf3-407f854a734b.jpgBarcelona-UB: Beyond Survival: The Journey After Stroke (2024) [English]An intimate look at the untold stories of stroke survivors, exploring the profound transformations in their lives and the communities they touch. From redefining relationships to rediscovering strength, this documentary invites us to rethink recovery—not just as survival, but as a return to joy, identity, and resilience.https://static.igem.org/peertube/streaming-playlists/hls/76173436-eafb-4632-9bc7-a92897aa19e4/4f153ba6-41fb-4a7e-bc9e-4f4fdb173f20-master.m3u8https://video.igem.org/videos/embed/fzLYG1dT8Ew1KLfUFy8FdY920172024-10-02T01:30:40.098ZYES2024 TeamsNOhttps://video.igem.org/w/5rqJMm1f5vNQBbuxhCcM8Xhttps://video.igem.org/lazy-static/thumbnails/db435214-b2e1-43fd-96ea-dc22c7494e55.jpgShanghaitech-China: Card Games (2024) [English]Our great card games! Designed by dedicated team member Teddy!https://static.igem.org/peertube/streaming-playlists/hls/23f164dc-6b6f-4cc8-96ec-87c5446fc0d9/2568a58b-5924-4de5-9840-6b047cd37190-master.m3u8https://video.igem.org/videos/embed/5rqJMm1f5vNQBbuxhCcM8X820112024-10-02T02:01:37.453ZYES2024 TeamsNOhttps://video.igem.org/w/spV7gpAUZHVhdQxunWUc9Chttps://video.igem.org/lazy-static/thumbnails/1d6b6c44-3a40-40ca-8405-966aa2aa258e.jpgHeidelberg: rGCN4 Umbrella V3 (2024)Third iteration of umbrella sampling for rGCN4 with target DNAhttps://static.igem.org/peertube/streaming-playlists/hls/d5e470db-df5c-4d03-849f-1066050ebea0/d002d4ce-a87d-4a65-8e73-948ce41c8bb3-master.m3u8https://video.igem.org/videos/embed/spV7gpAUZHVhdQxunWUc9C4002272024-10-02T03:08:56.595ZYES2024 TeamsNOhttps://video.igem.org/w/qoL46xZ9eWe5PkM696KPHchttps://video.igem.org/lazy-static/thumbnails/fd520f44-3c24-4b0f-8a95-8e633d2fa840.jpgMexico: AgropipDefender - Videogame (2024)iGEM Mexico developed a videogame to show the general aspects of Agropip, our biopesticide made to protect maize from the Fall-Armyworm. Graphics, music and videogame programming by José Santiago Jara-Sarracino.https://static.igem.org/peertube/streaming-playlists/hls/c588d6f2-67ff-4893-b716-ceb137942eb9/443c6e47-d99b-40eb-9d34-78d20b1a9923-master.m3u8https://video.igem.org/videos/embed/qoL46xZ9eWe5PkM696KPHc670172024-10-02T03:15:12.944ZMusicAgricultureVideogameArtYES2024 TeamsNOhttps://video.igem.org/w/kDopjWXg9sCDerHmLXYBXEhttps://video.igem.org/lazy-static/thumbnails/4fe4fc13-95b8-4c1d-b98b-47fee612f491.jpgFHS-NB-ZJ-China: Science Drama for High School Students (2024) [English]A science drama from Fenghua High School that introduces gene editing technology to young students. Several cartoon characters provide a brief introduction to genetic engineering in a dialogue question-and-answer format.https://static.igem.org/peertube/streaming-playlists/hls/9f15f5b9-cc35-4009-bdd1-8dae2a3761b8/3c24e7c4-c4d5-49b7-b07c-d151eb8a3511-master.m3u8https://video.igem.org/videos/embed/kDopjWXg9sCDerHmLXYBXE3800162024-10-02T03:59:35.537ZYES2024 TeamsNOhttps://video.igem.org/w/eSXg9vDsyiaqBGxz7ikiq3https://video.igem.org/lazy-static/thumbnails/66ee1a24-668d-4328-abec-6bf9271acb5d.jpgIEA: Human Practices Experts (2024) [English]A summary of our experts used for our integrated human practices.https://static.igem.org/peertube/streaming-playlists/hls/70640c06-7d76-4df4-9660-d3b7df3d775e/45f11343-3fbb-42ce-b305-1a9264c347d4-master.m3u8https://video.igem.org/videos/embed/eSXg9vDsyiaqBGxz7ikiq3690112024-10-02T04:48:37.555ZYES2024 TeamsNOhttps://video.igem.org/w/nraSSLJS6azo4zXzdi19uHhttps://video.igem.org/lazy-static/thumbnails/d1f02a56-8fd5-43da-81fe-90b49944fea8.jpgIEA: Outreach (2024) [English]Summary of our outreach for Human Practices.https://static.igem.org/peertube/streaming-playlists/hls/ad9397d7-28fe-4e73-bdeb-fa633bab9ff1/eefd1e9c-12aa-4aba-ba06-791a45c91473-master.m3u8https://video.igem.org/videos/embed/nraSSLJS6azo4zXzdi19uH63032024-10-02T04:50:38.047ZYES2024 TeamsNOhttps://video.igem.org/w/2o49zCyrxUDq1bSsckrvCDhttps://video.igem.org/lazy-static/thumbnails/c2454ca3-b9da-48a7-9917-4464747d3af4.jpgPrinceton: Agarose-Based Microfluidic Device (2024) [English]We designed and developed a functional agarose-based microfluidic device aiming to test our engineered BOOMColi cells. Unlike commonly used PDMS microfluidic devices, our agarose-based device is more cost-effective and easier to make. We showed that creating an enclosed, leak-proof microfluidic device for live bacterial cell testing is possible using 3D-printed molds and 2% agarose. Team wiki: https://2024.igem.wiki/princeton This would not have been possible without the guidance and support of Dr. Jason Puchalla, Dr. Jared Toettcher, and our mentor Evan Underhill. https://static.igem.org/peertube/streaming-playlists/hls/0b2d710b-5d0d-4f1d-aa81-2122cdb79ad9/d4d43b8e-76dd-46cf-88d0-a0683b2c2adf-master.m3u8https://video.igem.org/videos/embed/2o49zCyrxUDq1bSsckrvCD400182024-10-02T06:17:21.869ZYES2024 TeamsNOhttps://video.igem.org/w/dVhrztz9qGTp7x57nCEUYghttps://video.igem.org/lazy-static/thumbnails/605c50ff-361c-4f3b-bf2e-ba8e9d5466c4.jpgBostonU: AGRINOVA App (2024)walkthrough of BostonU2024 application software to go on https://2024.igem.wiki/bostonu/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/689e3741-c326-4232-8897-7a521f8734df/ceaf8b0e-5ff2-48da-a022-608a8fa35174-master.m3u8https://video.igem.org/videos/embed/dVhrztz9qGTp7x57nCEUYg920212024-10-02T05:17:37.355ZYES2024 TeamsNOhttps://video.igem.org/w/jQFQYkdWBCaX3WyAM6c3tVhttps://video.igem.org/lazy-static/thumbnails/977b6ed1-f365-4ed3-ab83-a5cf9bc2b7c7.jpgUOregon: What is EHEC? (2024) [English]Learn about what the UOregon iGEM team studies! This teaches you about the infections our designed probiotic works to treat. https://static.igem.org/peertube/streaming-playlists/hls/9890c074-c20e-4671-a09e-e842fbf84143/9b3ff811-bc25-4086-8979-92ca28d3018b-master.m3u8https://video.igem.org/videos/embed/jQFQYkdWBCaX3WyAM6c3tV106072024-10-02T05:43:51.662ZYES2024 TeamsNOhttps://video.igem.org/w/hh2LNtLfvNSDVj6Gu5DfY9https://video.igem.org/lazy-static/thumbnails/f8970d7f-e8ad-407c-8b54-02a2b828f1eb.jpgBUCT-China: Internet + MicroDetect Medical Platform (2024) [English]BUCT-China 2024 wiki: https://2024.igem.wiki/buct-china/ BUCT-China 2024 aims to establish an internet-based cancer detection platform—“Internet + MicroDetect Medical Platform”—and provide an integrated user-friendly home testing kit. This platform enables users to self-sample, send back samples, and receive professional testing guidance and quick result feedback via an app. Furthermore, by using reagent pre-mixing, we streamline the process, reduce contamination risks, and achieve a turnaround time of under 60 minutes from sample handling to app display of results. The cost of our single test service is approximately $20, which offers a significant advantage over traditional cancer detection methods that rely on large equipment and surgical procedures, making high-quality testing services more affordable and promoting healthcare equity.https://static.igem.org/peertube/streaming-playlists/hls/83cf3610-1796-40a4-a349-989ff77e64b8/e566e63c-8026-48cc-971c-06addf51ff14-master.m3u8https://video.igem.org/videos/embed/hh2LNtLfvNSDVj6Gu5DfY9180182024-10-02T05:49:00.860ZYES2024 TeamsNOhttps://video.igem.org/w/br2ZeGqbCSCF5SKxd5bF6Ghttps://video.igem.org/lazy-static/thumbnails/d8dce3bd-b943-462a-83c2-e37c903fa30f.jpgHongKong-CUHK: ResiSense Mechanism Overview (2024) [English]ResiSense is a point-of-care kit designed to quickly, cheaply, and accessibly detect antibiotic resistance genes in bacterial samples. This video briefly outlines the mechanism of our kit. For more information, please refer to our website (https://2024.igem.wiki/hongkong-cuhk/description).https://static.igem.org/peertube/streaming-playlists/hls/547a348d-112a-46ef-afbf-f17b1e0d5a56/400043c7-59e4-459d-b9ff-38eabd84f0ae-master.m3u8https://video.igem.org/videos/embed/br2ZeGqbCSCF5SKxd5bF6G440452024-10-02T05:53:01.703ZYES2024 TeamsNOhttps://video.igem.org/w/vFeMir9ZUeZcSTJcETe51uhttps://video.igem.org/lazy-static/thumbnails/66a71ca4-7668-49d7-820c-d19911e4129a.jpgHongKong-CUHK: ResiSense Home Page Amination (2024) [English]Amination for home page, illustrating the working mechanism of ResiSense. Not intended for viewing separately.https://static.igem.org/peertube/streaming-playlists/hls/f0538562-e283-4a56-af87-2ea70c006164/06a301dc-68c4-4afb-baa2-a587d24f6eeb-master.m3u8https://video.igem.org/videos/embed/vFeMir9ZUeZcSTJcETe51u42012024-10-02T05:50:28.136ZYES2024 TeamsNOhttps://video.igem.org/w/aQaLSaLzVvyJHJmtdzzQs8https://video.igem.org/lazy-static/thumbnails/e268974a-749b-45a7-b047-eab6ac64c2d3.jpgStony-Brook: Summer Recap (2024) [English]A video recap of the 2024 Stony Brook iGEM team work during Summer of 2024. https://2024.igem.wiki/stony-brook/https://static.igem.org/peertube/streaming-playlists/hls/4f9bf8d8-8be7-4be2-ab9a-2678db20f523/458edcae-315c-41e7-8b71-e67716a0744c-master.m3u8https://video.igem.org/videos/embed/aQaLSaLzVvyJHJmtdzzQs8151052024-10-02T05:53:57.105ZYES2024 TeamsNOhttps://video.igem.org/w/524uMi8mCbUDkGrnLkw56Yhttps://video.igem.org/lazy-static/thumbnails/944434e9-00c1-459b-a33c-ba0644dbb276.jpgMIT-MAHE: Brewed Awakenings - An Audiobook for the Visually Impaired (2024) [English]An audiobook by team iGEM MIT-MAHE 2024 for the visually impaired to impart basic knowledge about synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/208a73fa-0ba1-4129-b21a-26ce33a90a0a/a49b26c2-1bde-47fc-8483-79fc13f1bf81-master.m3u8https://video.igem.org/videos/embed/524uMi8mCbUDkGrnLkw56Y10950112024-10-02T06:34:26.438ZYES2024 TeamsNOhttps://video.igem.org/w/vwBdbWTeJQrRaVuff8DEhwhttps://video.igem.org/lazy-static/thumbnails/df00cf0c-e6cf-44ae-b003-f73347ba72a5.jpgStony-Brook: Plasmid Miniprep Procedure (2024) [English]A video detailing the procedure we followed to do plasmid miniprep in our wet lab. https://2024.igem.wiki/stony-brook/homehttps://static.igem.org/peertube/streaming-playlists/hls/ef1f0884-1d46-4e21-a66c-b6aa072d718e/5f5b4c5c-9fdd-4346-8dd1-fca209a1516d-master.m3u8https://video.igem.org/videos/embed/vwBdbWTeJQrRaVuff8DEhw1960112024-10-02T06:37:10.840ZYES2024 TeamsNOhttps://video.igem.org/w/fGRuwJsFrn2Hs8N39Ya6johttps://video.igem.org/lazy-static/thumbnails/a275755e-4e59-4ea5-8b1e-b975d642b832.jpgUBC-Vancouver: Microfluidics Titration Experiment (2024) [English]The video demonstrates how to run a titration experiment to evaluate microfluidic chip performance. https://static.igem.org/peertube/streaming-playlists/hls/77143147-e61f-44d5-8cd2-1f952fa87046/a80032da-ff1e-41ba-9519-df4fa59cad86-master.m3u8https://video.igem.org/videos/embed/fGRuwJsFrn2Hs8N39Ya6jo1200252024-10-02T06:40:19.146ZYES2024 TeamsNOhttps://video.igem.org/w/uFuHENrSdKAKKEjZkNqejChttps://video.igem.org/lazy-static/thumbnails/b392b044-a75e-4184-a285-81c484fe778c.jpgStony-Brook: Bacterial Culture Inoculation Procedure (2024) [English]A video detailing the procedure we followed for inoculation in our wet lab. https://2024.igem.wiki/stony-brook/homehttps://static.igem.org/peertube/streaming-playlists/hls/e843967e-bdf2-4f8f-bc21-9b4bd01f27cc/1ed4d8ce-e99a-41c4-9604-9df446040ac3-master.m3u8https://video.igem.org/videos/embed/uFuHENrSdKAKKEjZkNqejC1530142024-10-02T06:39:19.914ZYES2024 TeamsNOhttps://video.igem.org/w/wqvCUGYXJe829kEULfJ2yfhttps://video.igem.org/lazy-static/thumbnails/31749a95-4a55-4151-8078-2b6d0faa5908.jpgThailand-RIS: Home Page video (2024) [English]Thailand-RIS: Home Page video (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/f65e463a-bf39-49a5-9e7b-c72e649c3062/fb507ac5-9d5e-4ec0-8416-2ee0cf676f67-master.m3u8https://video.igem.org/videos/embed/wqvCUGYXJe829kEULfJ2yf4032024-10-02T06:57:28.499ZYES2024 TeamsNOhttps://video.igem.org/w/qgadomapgzfVQnfX2Bxfqohttps://video.igem.org/lazy-static/thumbnails/a2b6bdfe-3ae4-4f33-bf4b-9b826a105529.jpgECUST: Hardware07 (2024)https://2024.igem.wiki/ecust/https://static.igem.org/peertube/streaming-playlists/hls/c4792995-5cb9-4ade-a953-f68954f65ae6/f0dbca2a-ad85-423e-a9f2-18022e8f464c-master.m3u8https://video.igem.org/videos/embed/qgadomapgzfVQnfX2Bxfqo54012024-10-02T08:34:55.284ZYES2024 TeamsNOhttps://video.igem.org/w/mabmVbp2gMFhjQNVEsUqtahttps://video.igem.org/lazy-static/thumbnails/3fc9fbd6-8b0b-41ac-b52d-c0a58ea7883b.jpgMIT: BloodFlowSimulation (2024)Video demonstrating blood flow in blood vessel, as modeled by turbulent CFD flow.https://static.igem.org/peertube/streaming-playlists/hls/a33eda23-212b-4e9b-a7d5-62b4a6a63547/ae8a801f-6d3d-4a92-ad2a-ced8d150b898-master.m3u8https://video.igem.org/videos/embed/mabmVbp2gMFhjQNVEsUqta1870122024-10-02T09:25:00.702ZYES2024 TeamsNOhttps://video.igem.org/w/vsxGmXkffbTo8wH4YYRPwAhttps://video.igem.org/lazy-static/thumbnails/18008013-5b73-45a7-b427-e70de84349fa.jpgMIT: Point Tracking for Multi-Cell Analysis (2024)Point-Tracking example for conducting Multi-cell analysis in OpenFOAM Paraviewhttps://static.igem.org/peertube/streaming-playlists/hls/ee8de477-18b4-4145-a0b0-0f46448a4df2/c9770e5b-1668-46e8-acc4-97a42a286295-master.m3u8https://video.igem.org/videos/embed/vsxGmXkffbTo8wH4YYRPwA1620102024-10-02T09:30:27.096ZYES2024 TeamsNOhttps://video.igem.org/w/dJHZQQnQAYRpDNNtvNpiu2https://video.igem.org/lazy-static/thumbnails/7fdb2e4c-e741-428c-a248-196305201501.jpgGreatBay-SCIE: homepage video (2024) [English]This is the home page introduction video for Greatbay SCIE. See more through our wiki link:https://2024.igem.wiki/greatbay-scie/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6724c8b4-3f51-4dcd-94bd-b1279aa66b15/37110d0b-d8b6-43a5-8a2e-26fd4d993875-master.m3u8https://video.igem.org/videos/embed/dJHZQQnQAYRpDNNtvNpiu22406342024-10-02T09:52:13.258ZYES2024 TeamsNOhttps://video.igem.org/w/jNiEgnbSsZh1vdpWhSYRDdhttps://video.igem.org/lazy-static/thumbnails/6f59d270-2903-499c-9a1c-c1536f3445a0.jpgNJU-China: Prometheus User Guide - Expert Mode (2024) [English]Video guide for Expert Mode of Prometheus. Credit: NJU-China Wiki Link: https://2024.igem.wiki/nju-chinahttps://static.igem.org/peertube/streaming-playlists/hls/983b97ae-296e-4021-af79-2fe7a166fd32/9aabaa0f-4d37-438b-921f-45a5c2375a1d-master.m3u8https://video.igem.org/videos/embed/jNiEgnbSsZh1vdpWhSYRDd14012024-10-02T10:48:04.481ZPrometheusYES2024 TeamsNOhttps://video.igem.org/w/9jgSSTMMd48AjzM7QP6s4Zhttps://video.igem.org/lazy-static/thumbnails/921e8597-3466-48fc-b55a-8f27718cf7ec.jpgBIT-China: hardware1 (2024)hardware;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/43564824-bdaf-4678-af29-806d203b9047/957c04aa-47ab-4782-9c6a-4453396eea98-master.m3u8https://video.igem.org/videos/embed/9jgSSTMMd48AjzM7QP6s4Z74052024-10-02T11:03:23.990ZhardwareYES2024 TeamsNOhttps://video.igem.org/w/eFT3CL7VnDg9i6S1fsCQZphttps://video.igem.org/lazy-static/thumbnails/fdcc29f6-6791-42d7-b7ce-0b48b81f077d.jpgBIT-China: hardware2 (2024)hardware;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/6ed84478-5f7f-4b88-a411-02d383e8e7c1/a1038c6f-c7ae-48e5-9b07-7bdd782e45dc-master.m3u8https://video.igem.org/videos/embed/eFT3CL7VnDg9i6S1fsCQZp17082024-10-02T11:03:31.868ZhardwareYES2024 TeamsNOhttps://video.igem.org/w/sM2YiKK3dA4JQhYVyMRfwfhttps://video.igem.org/lazy-static/thumbnails/93316b52-b91e-4f09-833d-bcfd4b317fe3.jpgBIT-China: hardware3 (2024)hardware;Wiki:https://2024.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/d8d74a13-2f75-466b-990c-14b9f47ee78a/289783d7-70c8-46a4-a612-add1ffc88d6f-master.m3u8https://video.igem.org/videos/embed/sM2YiKK3dA4JQhYVyMRfwf17072024-10-02T11:03:46.861ZhardwareYES2024 TeamsNOhttps://video.igem.org/w/gPR1aGFuRREgqmNMcuE9Rbhttps://video.igem.org/lazy-static/thumbnails/c7d76f33-f0ea-4845-a53c-347accdc8d74.jpgKULeuven: Women in Science Interviews: Question 10 (2024) [English]This is one of our Women in Science Interviews, where female scientists answer the question: How can we make science more inclusive and representative?https://static.igem.org/peertube/streaming-playlists/hls/80273c76-f2f7-40b7-82b0-3d24261dee14/cc33ef88-f04c-4ab9-8f59-95a96c7423af-master.m3u8https://video.igem.org/videos/embed/gPR1aGFuRREgqmNMcuE9Rb233052024-10-02T11:28:18.142ZinterviewwomeninscienceinclusivityYES2024 TeamsNOhttps://video.igem.org/w/acinfE6xsDZrG72QaiVX6Jhttps://video.igem.org/lazy-static/thumbnails/63bc13cc-413c-47d1-bbd4-2b7414af686b.jpgUChicago: LandingCapsid (2024)This video is self-rendered on Blender 4.2 and shows our protein particle spinning together with worm graphics to go with the project theme while showing our project name. Protein structure is derived from publically available PDB file. https://static.igem.org/peertube/streaming-playlists/hls/4a7621c0-ee56-431b-b959-eeb5e9726780/f9899799-d13c-4784-be9e-2dd6a54df7d2-master.m3u8https://video.igem.org/videos/embed/acinfE6xsDZrG72QaiVX6J13032024-10-02T11:27:47.677ZYES2024 TeamsNOhttps://video.igem.org/w/ur8r94bE75Jgb8XRiqi4mqhttps://video.igem.org/lazy-static/thumbnails/18c1a0d3-cff7-4c42-9418-a62838529e74.jpgRadboud-University: Sponsor pitch (2024) [English]This video was used by the 2024 Radboud iGEM team to provide information to potential sponsors. The video includes a project discription, project goals and information about the iGEM competition. This video was created with the help of Radboud Educational Clipshttps://static.igem.org/peertube/streaming-playlists/hls/e6420ec8-3f55-4430-9ebe-a450da115c94/05a6e55b-1acf-4cd3-a79b-db4d9c1d1ed0-master.m3u8https://video.igem.org/videos/embed/ur8r94bE75Jgb8XRiqi4mq109072024-10-02T11:29:22.838ZYES2024 TeamsNOhttps://video.igem.org/w/s5h8SBUXHBaCdpSk8iqow6https://video.igem.org/lazy-static/thumbnails/4a97f965-3965-4054-b072-94e21a107cce.jpgTecMonterreyGDL: Interview with Mara Valverde Rascón (2024) [Spanish]On September 26th, 2024, our team had the privilege of interviewing Mara Valverde Rascón, a member of the iGEM team from the Technical University of Munich. The aim of the interview was to explore her experiences in the iGEM competition, the challenges she faced, and the insights she gained throughout the process. Through this video, we hope to provide future participants with a glimpse into the demanding yet rewarding journey of developing a project for the Grand Jamboree, inspiring them to get involved in this exciting competition.https://static.igem.org/peertube/streaming-playlists/hls/d3268634-a79f-4b3e-be64-eb91b8d8ebd9/1c1a99f2-bb67-4905-bb75-f8531015dee4-master.m3u8https://video.igem.org/videos/embed/s5h8SBUXHBaCdpSk8iqow61777042024-10-02T11:36:56.636ZYES2024 TeamsNOhttps://video.igem.org/w/dbQfWbStTarhsKX5jsdkZfhttps://video.igem.org/lazy-static/thumbnails/4bdbe970-beda-400b-81e5-f0b3854531d9.jpgECUST: Hardware007 (2024) [English]https://2024.igem.wiki/ecust/https://static.igem.org/peertube/streaming-playlists/hls/62b0d762-eaf5-4d9f-bd2a-df9523021ae4/6f2c3e55-1930-416b-84d9-a11a652b8a0d-master.m3u8https://video.igem.org/videos/embed/dbQfWbStTarhsKX5jsdkZf87092024-10-02T11:38:32.965ZYES2024 TeamsNOhttps://video.igem.org/w/nQ4n4S59tTLMdZDjVTFsz1https://video.igem.org/lazy-static/thumbnails/536bb9ec-6ad0-468f-bf6c-7cd311270ddf.jpgTUPLS-Japan: News (2024) [Japanese]This is an introductory video to the riddle game.https://static.igem.org/peertube/streaming-playlists/hls/b0c5af7b-5d00-40c7-8acd-19afef0fb78a/9fe9eca9-1745-48b5-8721-abd620c996fe-master.m3u8https://video.igem.org/videos/embed/nQ4n4S59tTLMdZDjVTFsz164072024-10-02T11:42:49.208ZEducationYES2024 TeamsNOhttps://video.igem.org/w/pUYaB76GX9rwj8rEwCw5UJhttps://video.igem.org/lazy-static/thumbnails/0cc52d2a-acfa-4e2c-8882-cf8f0ab6d13c.jpgKULeuven: Women in Science Interviews: Question 9 (2024) [English]This is one of our Women in Science Interviews, where female scientists answer the question: What advice would you give to young girls interested in becoming a scientist?https://static.igem.org/peertube/streaming-playlists/hls/c1a77a7f-55b4-4e64-98f7-08e23643ff32/48580fa2-9579-4f20-98b8-73af12567115-master.m3u8https://video.igem.org/videos/embed/pUYaB76GX9rwj8rEwCw5UJ216012024-10-02T11:45:33.433ZinterviewwomeinscienceinclusivityYES2024 TeamsNOhttps://video.igem.org/w/4gWx8neoBiLLKDnP8UnAkkhttps://video.igem.org/lazy-static/thumbnails/b1b10bc3-884a-430f-b5ba-b61a3149df0b.jpgKULeuven: Women in Science Interviews: Question 8 (2024) [English]This is one of our Women in Science Interviews, where female scientists answer the question: How can we ensure equal opportunities for women in science, including access to education, funding, grants and career advancement?https://static.igem.org/peertube/streaming-playlists/hls/1a852e94-2d84-4209-ad3a-0bb6bd9bac51/582dd199-dc20-47cb-9503-7b538f124279-master.m3u8https://video.igem.org/videos/embed/4gWx8neoBiLLKDnP8UnAkk283022024-10-02T12:01:17.516ZinterviewwomeninscienceinclusivityYES2024 TeamsNOhttps://video.igem.org/w/n5uvmR4ZXZazY9DYpVLXm3https://video.igem.org/lazy-static/thumbnails/dbe6035b-5205-439d-a3ab-554c06f6dd34.jpgTUPLS-Japan: How to Make Medicine (2024) [Japanese]Easy-to-follow instructions on how to make pharmaceutical products.https://static.igem.org/peertube/streaming-playlists/hls/aab0745a-9e70-4b12-8c2a-cdd8df597256/9d0c92b2-d0c3-4f08-9c96-7cc592641a2d-master.m3u8https://video.igem.org/videos/embed/n5uvmR4ZXZazY9DYpVLXm385042024-10-02T13:00:49.797ZEducationYES2024 TeamsNOhttps://video.igem.org/w/cGE2QarEwYMFUiWh3APXcYhttps://video.igem.org/lazy-static/thumbnails/05ed1fb3-3157-4767-bde7-24b3947b38f6.jpgTUPLS-Japan: Clinical Trial Process (2024) [Japanese]Clinical trials of medicinal products in an easy-to-understand format.https://static.igem.org/peertube/streaming-playlists/hls/5ec1b6be-4147-459f-8a6e-7abd17cd422a/0ae1a92a-7cde-400f-abbd-9560b769faac-master.m3u8https://video.igem.org/videos/embed/cGE2QarEwYMFUiWh3APXcY64052024-10-02T13:02:47.842ZEducationYES2024 TeamsNOhttps://video.igem.org/w/iowRM1tHJnW8kfnETGoCXkhttps://video.igem.org/lazy-static/thumbnails/e93dd397-a7e2-40f3-8a24-b9b6f3245de8.jpgUBC-Vancouver: Mark 2 Assembly (2024) [English]UBC-Vancouver: Mark 2 Assembly (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/8cd0bcb9-80a9-4e83-b3ac-899f8a45e069/b3b0fd35-6c97-428b-885b-be29adfdcaa3-master.m3u8https://video.igem.org/videos/embed/iowRM1tHJnW8kfnETGoCXk130262024-10-02T13:09:24.585ZYES2024 TeamsNOhttps://video.igem.org/w/fzzUMmC4RRQ9Ti8gT8fXRThttps://video.igem.org/lazy-static/thumbnails/f81a97e8-f4bc-4439-8046-ca8b9308e669.jpgUBC-Vancouver: Mark 3 Assembly (2024) [English]How to assemble Mk. 3 bioreactorhttps://static.igem.org/peertube/streaming-playlists/hls/76106229-d8a3-4bb5-bc0f-dd7bcf3fecc9/801abe2e-7e93-4193-b442-b34ceab93701-master.m3u8https://video.igem.org/videos/embed/fzzUMmC4RRQ9Ti8gT8fXRT130282024-10-02T13:13:54.594ZYES2024 TeamsNOhttps://video.igem.org/w/gCuwpbEgA49uXLtW17wWjshttps://video.igem.org/lazy-static/thumbnails/16152876-84c7-4346-a9f1-0ba1d9707af6.jpgUBC-Vancouver: Mark 4 Assembly (2024) [English]How to assemble Mk. 4 Bioreactorhttps://static.igem.org/peertube/streaming-playlists/hls/7e916f2a-7278-4425-9832-3858515877d6/ee74506e-6ddd-4f8a-8225-19e981b5a654-master.m3u8https://video.igem.org/videos/embed/gCuwpbEgA49uXLtW17wWjs140322024-10-02T13:17:59.468ZYES2024 TeamsNOhttps://video.igem.org/w/aw6C9bhE8BBuSE8rnV9EoQhttps://video.igem.org/lazy-static/thumbnails/ba406ac4-e31c-4ef6-b943-21066118b747.jpgUBC-Vancouver: Mark 1 Assembly (2024) [English]Mark 1 assemblyhttps://static.igem.org/peertube/streaming-playlists/hls/4d1606c2-df9b-4269-9b52-646b78019bf4/b55ab8aa-bdc2-4103-9911-979790e71805-master.m3u8https://video.igem.org/videos/embed/aw6C9bhE8BBuSE8rnV9EoQ18052024-10-02T13:19:34.426ZYES2024 TeamsNOhttps://video.igem.org/w/jVdEW6xaWHAWsTS1t1EZePhttps://video.igem.org/lazy-static/thumbnails/ec598f2a-93fa-4527-ac50-16e754fc8410.jpgCNPEM-BRAZIL: HOMEa (2024) [English]CNPEM-BRAZIL: HOMEa (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/9932b981-276d-4710-8a12-4f7fe95675f5/2eb36886-c6e4-427a-8dae-dd0cdae48124-master.m3u8https://video.igem.org/videos/embed/jVdEW6xaWHAWsTS1t1EZeP20102024-10-02T13:26:06.882ZYES2024 TeamsNOhttps://video.igem.org/w/4LfoGd3RuAeMf6Zod7KdHBhttps://video.igem.org/lazy-static/thumbnails/c3f03b5b-1faa-40f0-8c3e-22f478b68d0c.jpgUBC-Vancouver: Mark 1 Experiment (2024) [English]Mark 1 bioreactor running in the labhttps://static.igem.org/peertube/streaming-playlists/hls/1e7902c3-2e43-48d1-a000-af1e0dca0ab5/bde785d0-4b55-4c4e-94ff-97d4ea267fef-master.m3u8https://video.igem.org/videos/embed/4LfoGd3RuAeMf6Zod7KdHB160132024-10-02T13:27:28.449ZYES2024 TeamsNOhttps://video.igem.org/w/kC5hhUiFaYTgBAphehdRGGhttps://video.igem.org/lazy-static/thumbnails/f7d55c14-d9cd-4b75-b50c-4bdef8b1b964.jpgUBC-Vancouver: Mfx Pump (2024) [English]UBC-Vancouver: Mfx Pump (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/9ee70c67-341b-4d1f-949d-86fea0428a9c/1d014f6f-118b-4d44-9354-c613cee5f675-master.m3u8https://video.igem.org/videos/embed/kC5hhUiFaYTgBAphehdRGG200112024-10-02T13:29:46.120ZYES2024 TeamsNOhttps://video.igem.org/w/kcYqGSrjVPDkyeWwfeFRfEhttps://video.igem.org/lazy-static/thumbnails/9af50ab1-aec9-459f-9994-c67169d75965.jpgUBC-Vancouver: Microfluidics titration experiment (2024) [English]UBC-Vancouver: Microfluidics titration experiment (2024) [English]https://static.igem.org/peertube/streaming-playlists/hls/9b8996f8-b0bc-4981-989e-ab1c08af3f5e/184f0c20-5df1-4afa-88d0-891e95866cb8-master.m3u8https://video.igem.org/videos/embed/kcYqGSrjVPDkyeWwfeFRfE1200242024-10-02T16:51:39.479ZYES2024 TeamsNOhttps://video.igem.org/w/e3EJHCmb1hka5bibKXPMxehttps://video.igem.org/lazy-static/thumbnails/7ccb8d92-3ce8-419c-8fe3-6963534f963e.jpgTsinghua-M: Story of RNAssay (2024) - Team Presentation [English]**Title:** Story of RNAssay **Description:** In this video, we' ll show you how we successfully construct a RNA Sensor based Analysis system in Yeast, through wet lab, dry lab and human practice. [Wiki](https://2024.igem.wiki/tsinghua-m) | [Official Page](https://teams.igem.org/5242)https://static.igem.org/peertube/streaming-playlists/hls/69a6298f-5a35-466a-aa49-96d9a0e2b30f/5edb8dd6-b589-4248-9ac5-e995fd0de735-master.m3u8https://video.igem.org/videos/embed/e3EJHCmb1hka5bibKXPMxe8800512024-10-03T08:05:47.609ZYES2024 PresentationsNOhttps://video.igem.org/w/n7ho5McsyWxPx3pMf5Q28Khttps://video.igem.org/lazy-static/thumbnails/6f658050-65ba-49cb-9dbb-71345b382f81.jpgiGEM Community - GirlsLab - Overcoming Age & Gender Biases in STEMOn October 2nd, 2024, we hosted our third Speaker Event with Belfu Berkol (Founder at BioDIF)! She spoke about how she overcame age and gender biases in STEM!. Learn more about the project: https://community.igem.org/projects/girlslab https://static.igem.org/peertube/streaming-playlists/hls/aaf0782e-ca5e-4c1f-9ea4-ca27e6e00025/1911823f-55f1-41f9-ae82-e23649786262-master.m3u8https://video.igem.org/videos/embed/n7ho5McsyWxPx3pMf5Q28K32510262024-10-03T21:46:23.535ZYESiGEM CommunityNOhttps://video.igem.org/w/8eFJEFFDj7a5w6fWD57r3ohttps://video.igem.org/lazy-static/thumbnails/3369ce6f-d76a-4747-a827-5e248af755cd.jpgBioplus-Shanghai: Herbal Code—Construction of a biosynthetic pathway for phenoli... (2024) - Team...**Title:** Herbal Code—Construction of a biosynthetic pathway for phenolic acids in model organisms **Description:** Danshen, the root of Salvia miltiorrhiza, is widely recognized as an effective medicine for treating cardiovascular and cerebrovascular diseases, but there are many limitations in the extraction of its active components. To overcome these limitations, our project employs synthetic biology techniques to design two synthetic pathways. Utilizing endogenously produced 4-coumaroyl-CoA in tobacco as the acyl donor, we introduce key enzymes and precursor substances exogenously to synthesize rosmarinic acid. In pathway one, we introduce danshensu, SmRAS10, and SmCYP98A14; in pathway two, we introduce 4-hydroxyphenyllactate, SmRAS10, SmCYP98A14, and SmCYP98A75. LC-MS/MS results indicate that both pathways are capable of synthesizing rosmarinic acid in tobacco leaves. Moving forward, the project will focus on further optimizing production efficiency. This not only provides a new strategy for the sustainable development of Salvia miltiorrhiza but also suggests that this method can be applied to the production of other medicinal components. [Wiki](https://2024.igem.wiki/bioplus-shanghai) | [Official Page](https://teams.igem.org/5214)https://static.igem.org/peertube/streaming-playlists/hls/3a9920a9-82f2-4de3-a494-12f39ee3c7de/1fb10198-f46f-488b-add9-9bc57d1ff358-master.m3u8https://video.igem.org/videos/embed/8eFJEFFDj7a5w6fWD57r3o8760262024-10-05T07:25:39.383ZYES2024 PresentationsNOhttps://video.igem.org/w/nepqXnoRjRgAXiF4hdELGqhttps://video.igem.org/lazy-static/thumbnails/0da28d47-a3bc-4497-9b52-c60aa0d8a473.jpgBioplus-China: Tea Leaf Alchemy: Osmanthus Enzyme Magic (2024) - Team Presentation [English]**Title:** Tea Leaf Alchemy: Osmanthus Enzyme Magic **Description:** This video involved the work of Bioplus-China. The topics are an introduction, project goal, inspiration, Design and results, Model, Hardware, Contribution, IHP, Education, Entrepreneurship, sustainable, and Inclusivity. [Wiki](https://2024.igem.wiki/bioplus-china) | [Official Page](https://teams.igem.org/5212)https://static.igem.org/peertube/streaming-playlists/hls/abef0530-cbbc-4542-9592-bbb1670ce748/190e3810-13c3-44d1-9311-42c46926f18e-master.m3u8https://video.igem.org/videos/embed/nepqXnoRjRgAXiF4hdELGq8980332024-10-05T12:02:19.036ZYES2024 PresentationsNOhttps://video.igem.org/w/tMrw8dVvVoBAPbwZTuoSLihttps://video.igem.org/lazy-static/thumbnails/5771ad61-5a2f-4262-a11d-ed19ba008e68.jpgWUXI-DSAS: Guarding Against Rhizoctonia solani (2024) - Team Presentation [English]**Title:** Guarding Against Rhizoctonia solani **Description:** Corn sheath blight caused by Rhizoctonia solani is one of the most destructive fungal diseases, causing serious losses to corn grain production. Although traditional chemical fungicides can effectively resist sheath blight, they also bring a series of environmental and other problems. Spraying double-stranded RNA (dsRNA) to induce gene silencing (SIGS) is a potential new tool for sustainable and environmentally friendly plant disease control. This project designed a sequence that can target and silence pathogenicity-related genes, RsCAT (R. solani catalase), constructed it into an expression vector, and used E. coli HT115(DE3) to produce dsRNA. Experiments have shown that after spraying RsCAT-dsRNA, the transcription level of the RsCAT gene was downregulated, and corn showed obvious disease resistance. In summary, Our project not only provides a novel strategy for the management of corn sheath blight but also carries significant potential for broad-spectrum application in the control of a variety of crop diseases. [Wiki](https://2024.igem.wiki/wuxi-dsas) | [Official Page](https://teams.igem.org/5474)https://static.igem.org/peertube/streaming-playlists/hls/e0fef0ba-e26a-45b7-925c-728d260d6661/83671b0d-f751-49f2-ac44-781893cb15d9-master.m3u8https://video.igem.org/videos/embed/tMrw8dVvVoBAPbwZTuoSLi8995222024-10-05T15:00:51.133ZYES2024 PresentationsNOhttps://video.igem.org/w/wnoQ9qn2TmNRGMi7SobHGkhttps://video.igem.org/lazy-static/thumbnails/b54a6ee5-6a15-43ea-a697-58021b740e6e.jpgHangzhou-BioX: AHL Assassins: Engineering Bacillus subtilis to Disarm Aquacultur... (2024) - Team...**Title:** AHL Assassins: Engineering Bacillus subtilis to Disarm Aquaculture Pathogens **Description:** The huge aquaculture industry in China faces serious threats from Aeromonas hydrophila, a pathogenic bacterium that can cause motile septicemia in aquatic animals. This pathogen utilizes AHL molecules to activate quorum sensing and express virulence factors. To combat A. hydrophila, we introduced AHL lactonases from various bacteria to Bacillus subtilis. By degrading AHL, our engineered B. subtilis can reduce the virulence of A. hydrophila and protect aquaculture animals. In the future, we hope that this approach could be scaled up for widespread application, potentially integrating with existing aquaculture practices to provide a sustainable and effective solution against bacterial pathogens. [Wiki](https://2024.igem.wiki/hangzhou-biox) | [Official Page](https://teams.igem.org/5208)https://static.igem.org/peertube/streaming-playlists/hls/f5eed938-15bd-4305-90c7-f4d5bdff4b17/3defe404-3dad-42f9-83e5-177f27059033-master.m3u8https://video.igem.org/videos/embed/wnoQ9qn2TmNRGMi7SobHGk7350212024-10-06T04:15:55.161ZYES2024 PresentationsNOhttps://video.igem.org/w/pxBB4jjypV9gqXDKjmwxt1https://video.igem.org/lazy-static/thumbnails/bd8d42ec-d1bd-40c1-858e-51e7cc4794bc.jpgBangkok-NMH: ASPINE - AI for Sequence-based Predictions and Identification if Ne... (2024) - Team...**Title:** ASPINE - AI for Sequence-based Predictions and Identification if Neoantigen Expression **Description:** Breast cancer remains a primary global health concern. Dendritic Cell (DC) vaccines are a promising immunotherapy that targets tumors using neoantigens. However, personalizing these vaccines requires mRNA sequencing, which is likely unavailable. ASPINE aims to address this issue by developing a machine-learning model to predict neoantigen expression using DNA sequences. We conducted four experiments using the Xpresso model, the first two using an obtained genome sequence and the latter two using an acquired patient data. The second and the fourth experiments have a shorter input sequence length to control for our shorter WES data in experiment four. With acquired patient data, the third experiment yielded an R-squared of 0.329 (RMSE: 0.440). The fourth experiment had an R-squared of 0.294 (RMSE: 0.443), showing improved performance compared to non-patient data. Future work will focus on optimizing the model and refining transcription start site classification to improve prediction accuracy. [Wiki](https://2024.igem.wiki/bangkok-nmh) | [Official Page](https://teams.igem.org/5251)https://static.igem.org/peertube/streaming-playlists/hls/beac3024-d14e-43fc-a9bd-a4de7effdcea/da5adafd-9d17-42c8-befb-7ecbb33a1604-master.m3u8https://video.igem.org/videos/embed/pxBB4jjypV9gqXDKjmwxt17930492024-10-06T14:10:52.814ZYES2024 PresentationsNOhttps://video.igem.org/w/9fD9sEABennsfs4UiuUi1phttps://video.igem.org/lazy-static/thumbnails/60441d91-9df3-4352-af83-49b55c841893.jpgGuangxi-U-China: Surface Display of Tumor Targeting Proteins on Engineered Bacte... (2024) - Team...**Title:** Surface Display of Tumor Targeting Proteins on Engineered Bacteria for Fighting Triple Negative Breast Cancer **Description:** This project is aimed to display tumor-targeting SIRPα on surfaces of E coli that has an inner membrane and an outer membrane separated by the periplasm. The transport unit of an outer membrane autotransporter called adhesin involved in diffuse adherence-I (AIDA-I) is chosen as the carrier for SIRPα, which facilitates the export across the cell envelope and anchor onto the bacterial cell surface with proper surface exposure. A short peptide GGGGS is designed as a flexible linker between gene-encoding sequences, including the signal peptide of cholera toxin B subunit that has high binding affinity with raft-associated ganglioside as well as a His tag for the verification of protein expression with immunofluorescence. A mathematic model has been developed for the elucidation of dynamic proteomic changes. Integrated human practice has been conducted. A wearable thermal ablation and portable diagnostic device has been established for early treatment and diagnosis. [Wiki](https://2024.igem.wiki/guangxi-u-china) | [Official Page](https://teams.igem.org/5337)https://static.igem.org/peertube/streaming-playlists/hls/42d469fc-6f8c-4f5e-82ab-782957a6177b/3434b5bd-2086-4b67-96c4-7f7c22ea95c1-master.m3u8https://video.igem.org/videos/embed/9fD9sEABennsfs4UiuUi1p6790212024-10-06T14:50:09.622ZYES2024 PresentationsNOhttps://video.igem.org/w/riThoCbUxDraKyWNZJRXokhttps://video.igem.org/lazy-static/thumbnails/844f5e20-0a3f-45de-99c0-4777aeebe97d.jpgSquirrel-Guangzhou: Detecting Milk Spoilage with Synthetic Biology (2024) - Team Presentation [En...**Title:** Detecting Milk Spoilage with Synthetic Biology **Description:** Milk spoils rapidly, particularly in warm climates, posing challenges for determining its freshness. This raise a dilemma between food waste and food safety. Our project addresses this issue using synthetic biology to develop a dual-plasmid biosensor that detects the presence of harmful bacteria in milk by measuring acyl-homoserine lactone (AHL) concentrations. We started from a survey and learnt from experts from milk industry&academia to improve our original design. With high throughput screening and machine learning tools, we fine-tune the circuit and achieve engineering success. [Wiki](https://2024.igem.wiki/squirrel-guangzhou) | [Official Page](https://teams.igem.org/5080)https://static.igem.org/peertube/streaming-playlists/hls/ccf3b6f0-7dd3-483d-b5ff-912fbe30df33/457d96cd-256e-4119-9b1b-04dfbdc5a00e-master.m3u8https://video.igem.org/videos/embed/riThoCbUxDraKyWNZJRXok8960222024-10-06T15:50:47.118ZYES2024 PresentationsNOhttps://video.igem.org/w/u59NWQNwKLLrnV5jQGwyJ8https://video.igem.org/lazy-static/thumbnails/c9d94802-aa98-4b36-b2a9-6e624395fbc8.jpgNYU-New-York: At Home Iron Level Detection Device (2024) - Team Presentation [English]**Title:** At Home Iron Level Detection Device **Description:** NYU iGEM 2024 Presentation Video [Wiki](https://2024.igem.wiki/nyu-new-york) | [Official Page](https://teams.igem.org/5098)https://static.igem.org/peertube/streaming-playlists/hls/e354495b-4605-4bae-8489-d4ea0cafccbb/b0e0cfa2-19e8-420c-b26e-af041ce90098-master.m3u8https://video.igem.org/videos/embed/u59NWQNwKLLrnV5jQGwyJ85410142024-10-06T20:39:40.613ZYES2024 PresentationsNOhttps://video.igem.org/w/fN7Ey2PGJqtLhuHAaX5hCGhttps://video.igem.org/lazy-static/thumbnails/f2319012-2ce8-4f99-90e7-9eb372c4f8b9.jpgHWFLA-Beijing: Engineered Probiotic for Targeted Tumor Therapy (2024) - Team Presentation [English]**Title:** Engineered Probiotic for Targeted Tumor Therapy **Description:** Tumors pose multifaceted harm, including life-threatening risks, organ damage, complications, psychological impact, and reduced quality of life. Genetically engineered bacteria have emerged as a promising strategy for disease diagnosis and treatment. These engineered bacteria have been used to monitor cancer liver metastases, liver dysfunction, and various gastrointestinal disorders, such as inflammation and infection. Certain bacteria, like Salmonella and Escherichia coli Nissle (EcN), can selectively colonize tumors due to their ability to infiltrate the hypoxic cores of immune-deficient tumors. In this study, we utilized a lactic acid-responsive promoter to control the expression of anti-PD-L1 antibody or azurin killer protein. EcN was engineered as a tumor-specific drug delivery system to target tumors and locally release drugs, inhibiting tumor growth and reducing drug dosage and cost. This approach could provide new insights and strategies for cancer treatment. [Wiki](https://2024.igem.wiki/hwfla-beijing) | [Official Page](https://teams.igem.org/5526)https://static.igem.org/peertube/streaming-playlists/hls/77d0430d-6ccd-4bc2-9c4d-6d6342341b40/5617a210-3d91-4941-824c-9c264f195a56-master.m3u8https://video.igem.org/videos/embed/fN7Ey2PGJqtLhuHAaX5hCG8940182024-10-07T02:40:29.245ZYES2024 PresentationsNOhttps://video.igem.org/w/whMY8QmFCRmmJixjei7u4khttps://video.igem.org/lazy-static/thumbnails/df635853-44cd-4746-a090-e981f2121193.jpgOKstate: OkState Healios (2024) - Team Presentation [English]**Title:** OkState Healios **Description:** Here is our presentation video over our project Healios. [Wiki](https://2024.igem.wiki/okstate) | [Official Page](https://teams.igem.org/5444)https://static.igem.org/peertube/streaming-playlists/hls/f54a6389-22a8-4962-a4c9-9e786d74cfd1/860e19b8-1346-4537-9f74-c00f83f3f56d-master.m3u8https://video.igem.org/videos/embed/whMY8QmFCRmmJixjei7u4k8960262024-10-07T02:50:55.129ZYES2024 PresentationsNOhttps://video.igem.org/w/7MgSG2jA7w57woXf4qLpyfhttps://video.igem.org/lazy-static/thumbnails/a32b883f-5834-4189-ac6c-4676fde041be.jpgSongshan-Lake: Smart Algicidal Bacteria to Control Water Blooms (2024) - Team Presentation [English]**Title:** Smart Algicidal Bacteria to Control Water Blooms **Description:** Eutrophication of water bodies can lead to cyanobacterial blooms, which cause serious harm to water ecosystems and the safety of drinking water. Algicidal bacteria (e.g., Bacillus subtilis) is a kind of bacteria that can directly or indirectly kill algal cells or inhibit their growth. Although algicidal bacteria can inhibit the growth of cyanobacteria and solve the problem of water blooms, the overgrowth and proliferation of any kind of microorganisms may hurt the natural environment. This project aims to develop and design a controllable ‘smart algicide bacteria’ that can inhibit the spread of bloom and also regulate the growth of algicide bacteria to prevent secondary pollution to the environment. We hope to provide an efficient and safe solution to the cyanobacterial problem and demonstrate the potential of synthetic biology applications in environmental governance, opening up new possibilities for future ecological protection and resource management. [Wiki](https://2024.igem.wiki/songshan-lake) | [Official Page](https://teams.igem.org/5348)https://static.igem.org/peertube/streaming-playlists/hls/36e91593-fb45-4a1b-af13-0b3f254b81ca/69ff3e48-a8ec-4cad-b9a0-1c9c13a645cb-master.m3u8https://video.igem.org/videos/embed/7MgSG2jA7w57woXf4qLpyf8580322024-10-07T03:53:06.420ZYES2024 PresentationsNOhttps://video.igem.org/w/dtJcXwBHWkqQwfhQwB9XEThttps://video.igem.org/lazy-static/thumbnails/52541e7d-38c3-4a54-8e7a-4396a68dd2d2.jpgSFLS-Hangzhou: Sugar Control and Fiber Boost: Developing a Functional Food Product (2024) - Team ...**Title:** Sugar Control and Fiber Boost: Developing a Functional Food Product **Description:** Our "Sugar Control and Fiber Boost" project aims to develop a novel functional food product designed to address the modern challenge of excessive sugar intake and its associated health risks, such as diabetes and obesity. This initiative responds to the growing need for dietary solutions that promote healthy blood sugar levels while enhancing gut health through increased prebiotic and dietary fiber content. Our research focuses on formulating a food product that reduces sugar content and enriches the diet with beneficial nutrients. Through rigorous experimentation and formulation adjustments, we aim to achieve an optimal balance of taste, nutritional benefits, and consumer acceptance. Ultimately, our goal is to contribute to public health by offering a convenient and effective dietary option that supports metabolic health and overall well-being in individuals prone to sugar-related health issues. [Wiki](https://2024.igem.wiki/sfls-hangzhou) | [Official Page](https://teams.igem.org/5093)https://static.igem.org/peertube/streaming-playlists/hls/650cc195-16bb-4c83-b369-521c068bbcbb/9e06f1d6-cd2d-45b3-be1e-24b83b87934b-master.m3u8https://video.igem.org/videos/embed/dtJcXwBHWkqQwfhQwB9XET7200342024-10-07T07:57:12.007ZYES2024 PresentationsNOhttps://video.igem.org/w/aK4rwchCr5wL2axt1roLakhttps://video.igem.org/lazy-static/thumbnails/1ed7b68c-78fc-40ee-a6f9-aa5943fbcc0c.jpgSubCat-Union: Engineering and Development of Collagen-based Rotavirus Subunit Va... (2024) - Team...**Title:** Engineering and Development of Collagen-based Rotavirus Subunit Vaccines **Description:** Rotaviruses are the most common causative agents of severe gastroenteritis in children under five years of age. Vaccination is the most effective measure to prevent Rotavirus infection. It was previously shown that the outer capsid viral protein (VP4) is an essential target for developing a recombinant rotavirus vaccine as it mediates the attachment and penetration of rotavirus. However, the current live rotavirus vaccines show reduced effectiveness. Here, we focus on crafting a recombinant rotavirus vaccine with improved efficacy and safety. The coexpression of a human collagen type Ⅲ with VP4 in Escherichia coli was employed to generate oligomerization of recombinant rotavirus vaccines. Further, a stable hydroxyproline-free ABC heterotrimeric collagen mimetic system was used to produce a polyvalent rotavirus vaccine. Importantly, these newly designed vaccines utilize non-infectious virus-like particles with enhanced immunogenicity and protection, which could be considered viable candidates for further development to become a parenterally administered rotavirus vaccine. [Wiki](https://2024.igem.wiki/subcat-union) | [Official Page](https://teams.igem.org/5531)https://static.igem.org/peertube/streaming-playlists/hls/4ee5599b-ab0b-4b13-84db-023f058f3b8d/46f74a4e-efd6-4ef3-9b7b-55ba63b646e9-master.m3u8https://video.igem.org/videos/embed/aK4rwchCr5wL2axt1roLak701082024-10-07T08:48:00.198ZYES2024 PresentationsNOhttps://video.igem.org/w/w9182KHcTkWfUPyV9rVupJhttps://video.igem.org/lazy-static/thumbnails/25822bf3-8e1d-4903-bc15-48a1ad21063d.jpgShanghai-HS: Development of Pompe disease drug screening kit (2024) - Team Presentation [English]**Title:** Development of Pompe disease drug screening kit **Description:** Nowadays, Some individuals suffer from Pompe disease, a rare condition caused by a lack or low activity of acid alpha-glucosidase (GAA) in lysosomes, leading to glycogen accumulation and impaired lysosomal function. Currently, enzyme replacement therapy is the sole treatment, yet it's costly and may cause rejection. Our project utilizes gene engineering to produce stable, high-efficiency GAA proteins and develop a screening kit for small-molecule drugs. Then we screened some small molecule drugs that may increase GAA enzyme activity through bioinformation technology, and further used our drug screening kit to verify the effect of the drug. We hope that we can not only contribute to the screening of drugs to alleviate Pompeii disease, but also hope that we can pay attention to Pompeii disease and give more support to patients with Pompeii disease. [Wiki](https://2024.igem.wiki/shanghai-hs) | [Official Page](https://teams.igem.org/5069)https://static.igem.org/peertube/streaming-playlists/hls/f4102f45-c8cf-4b0f-9e5a-b98024801d68/5f3e30fc-5107-4f6e-abb8-c41d10a3ad2e-master.m3u8https://video.igem.org/videos/embed/w9182KHcTkWfUPyV9rVupJ6850242024-10-07T09:40:55.749ZYES2024 PresentationsNOhttps://video.igem.org/w/mPuG2EUdcvEv38XP1FFD3rhttps://video.igem.org/lazy-static/thumbnails/768ca121-fe48-4c66-941b-cca07f38748d.jpgPINGHE-MCA: Pichia Pastoris Production Plant for Healthy Sugar SubstituteD-Psicose (2024) - Team ...**Title:** Pichia Pastoris Production Plant for Healthy Sugar SubstituteD-Psicose **Description:** Traditional sweeteners have become a research focus due to issues such as high calorie content and high blood sugar levels .D-Psicose,as an emerging low calorie sweetener, combines good sweetness with health benefits such as reducing fat and lowering blood sugar. Due to its scarcity in nature, there are two synthetic methods: chemical synthesis, which pollutes the environment, and biological synthesis, which is highly favored for its environmental friendliness and efficiency. However, the existing enzyme species of the key enzyme in the biosynthesis of D-Psicose, 3-isomerase, have poor thermal stability and low expression.In this study, we selected the coding genes of D-psicose 3-epimerase from different sources, induced the expression and purification of the target protein in Pichia pastoris, and detected its enzymatic properties to screen D-psicose 3-epimerase with good thermal stability. [Wiki](https://2024.igem.wiki/pinghe-mca) | [Official Page](https://teams.igem.org/5528)https://static.igem.org/peertube/streaming-playlists/hls/a898694c-8857-441d-ba74-f8aca0669689/ec91f5ed-da86-4821-a2de-87e04b33ef3b-master.m3u8https://video.igem.org/videos/embed/mPuG2EUdcvEv38XP1FFD3r8970152024-10-07T10:51:09.557ZYES2024 PresentationsNOhttps://video.igem.org/w/ss2VKVWcHTY4qeD6HBjGwrhttps://video.igem.org/lazy-static/thumbnails/12664ae4-6010-4aa6-a32a-13c78025772f.jpgFoshan-GreatBay: Construction of a Saccharomyces cerevisiae cell factory for hig... (2024) - Team...**Title:** Construction of a Saccharomyces cerevisiae cell factory for high β-carotene production **Description:** β-carotene is a terpenoid compound with important medical, food, and industrial values. Traditional physical extraction methods are time-consuming and cumbersome, and the cultivation of β-carotene-containing crops requires geographical location and growth cycle. Chemical synthesis of β-carotene may be toxic, limiting its application. Microbial fermentation for the synthesis of β-carotene is currently the most promising and promising synthetic method. Saccharomyces cerevisiae, a recognized food-safe grade microorganism with the advantages of easy molecular manipulation, rapid growth, and good tolerance, has been adapted for the production of various terpenoids including β-carotene. In this study, we targeted the β-carotene synthesis pathway, optimized the synthesis pathway genes, arranged and combined the candidate gene species sources, constructed the corresponding strains, tested the β-carotene yield of the resulting strains, and obtained the optimal gene combinations for the construction of a high-yielding β-carotene brewer's yeast to assist in the commercial production of β-carotene. [Wiki](https://2024.igem.wiki/foshan-greatbay) | [Official Page](https://teams.igem.org/5419)https://static.igem.org/peertube/streaming-playlists/hls/d6302171-e97e-448a-9744-9e03728527e5/7b45a5d0-63aa-49a8-8091-0fba79ffe504-master.m3u8https://video.igem.org/videos/embed/ss2VKVWcHTY4qeD6HBjGwr8910262024-10-07T11:10:29.033ZYES2024 PresentationsNOhttps://video.igem.org/w/dzA7cKRLyv4Kwt5Nehu9aChttps://video.igem.org/lazy-static/thumbnails/e6c1ec7f-90c9-4eb0-83f1-8b72ff09aba8.jpgFDfzSH: Rational Construction of Saccharomyces Cerevisiae Strain for Utilization... (2024) - Team...**Title:** Rational Construction of Saccharomyces Cerevisiae Strain for Utilization of Xylose **Description:** Fuel ethanol, with its high octane number and clean combustion, is a promising biofuel alternative to petrochemical energy. A sustainable approach involves cellulosic ethanol production from lignocellulosic biomass, known for its tough texture and complex structure. After pretreatment, it releases both glucose and xylose, but wild-type Saccharomyces cerevisiae, a key strain for ethanol production, cannot naturally utilize xylose. Enhancing its ability to metabolize xylose requires introducing metabolic pathways for xylose isomerization, often achieved through laboratory adaptive evolution, which can be time-consuming and may lead to unstable strain phenotypes. This study aimed to overcome these limitations by reconstructing the xylose utilization pathway in S. cerevisiae. We identified the NFS1I492N gene mutation and integrated the multi-copy xylA gene, which encodes xylose isomerase, to enable efficient xylose metabolism. This approach seeks to develop more robust S. cerevisiae strains capable of efficiently converting xylose into ethanol, contributing to more sustainable biofuel production. [Wiki](https://2024.igem.wiki/fdfzsh) | [Official Page](https://teams.igem.org/5351)https://static.igem.org/peertube/streaming-playlists/hls/65de3a3c-2619-402b-839f-fb328ff8764e/8235d674-1d9a-49d2-b1e1-95ebd7f4b807-master.m3u8https://video.igem.org/videos/embed/dzA7cKRLyv4Kwt5Nehu9aC732092024-10-07T11:18:16.432ZYES2024 PresentationsNOhttps://video.igem.org/w/rsY54qNp77Z7n7CnpJqtf9https://video.igem.org/lazy-static/thumbnails/42a96207-6b77-4286-b9d7-ea49607b7def.jpgZQT-Nanjing: BALANcE: Bowel Anti-inflammatory for Livestock utilizing Antimicrob... (2024) - Team...**Title:** BALANcE: Bowel Anti-inflammatory for Livestock utilizing Antimicrobial-peptide-based EcN **Description:** Our team visited a ranch and deepened our understanding of how chronic enteritis affects livestock production. We found that livestock suffering from chronic enteritis often exhibit significant dysbiosis of gut microbiota and strong inflammatory responses, similar to human inflammatory bowel disease (IBD). Given the similarities between chronic enteritis of livestock and human IBD, we drew inspiration from the more mature human IBD therapy ideas to develop an efficient and low-cost treatment strategy for livestock. We utilized Escherichia coli Nissle 1917 with the SoxR/SoxS oxidative stress-type promoter to synthesize and secrete antimicrobial peptides (AMP) and Anti-TNF-α, reducing intestinal mucosa inflammation by targeting harmful bacteria and inflammatory factors. We engineered a PhiX174E cleavage protein module to release AMP extracellularly at the right time, and we confirmed its effectiveness through modelling. For biosafety, we also designed a suicide switch to prevent engineered strains from polluting the environment. [Wiki](https://2024.igem.wiki/zqt-nanjing) | [Official Page](https://teams.igem.org/5101)https://static.igem.org/peertube/streaming-playlists/hls/ce385bdf-417b-4310-8da7-71c895409500/2a077455-efff-4714-b5d6-4e2fea3b6861-master.m3u8https://video.igem.org/videos/embed/rsY54qNp77Z7n7CnpJqtf98830722024-10-07T12:18:06.402ZYES2024 PresentationsNOhttps://video.igem.org/w/6KF1UeGyZtrF1PxKJ2bG8khttps://video.igem.org/lazy-static/thumbnails/d3208db1-8893-4ecf-80e5-5c53d46e77c4.jpgSquirrel-Shenzhen: A Dual-Plasmid Biosensor for Copper Ion Detection Using Synth... (2024) - Team...**Title:** A Dual-Plasmid Biosensor for Copper Ion Detection Using Synthetic Biology **Description:** In our everyday lives, from the vegetables we buy at the market to seafood and fine wines, heavy metal contamination is an often overlooked but significant concern. In this video, we introduce an innovative solution designed using synthetic biology: a specialized biomarker sensor for detecting copper ions. We’ll walk you through the design and implementation of our dual-plasmid system, showcasing the experiments and technology behind this advanced heavy metal detection method. Discover how our engineered sensor can make a difference in ensuring the safety and quality of the items we consume. [Wiki](https://2024.igem.wiki/squirrel-shenzhen) | [Official Page](https://teams.igem.org/5459)https://static.igem.org/peertube/streaming-playlists/hls/2e96b836-9db4-4fbe-b6ca-105f09a12369/54dfd6ad-c9a6-4b67-9e83-71dee1c5bae9-master.m3u8https://video.igem.org/videos/embed/6KF1UeGyZtrF1PxKJ2bG8k8880472024-10-07T12:28:39.112ZYES2024 PresentationsNOhttps://video.igem.org/w/333ZYnUPBrt9otYKgAhijZhttps://video.igem.org/lazy-static/thumbnails/79c3605b-29cc-497a-8990-96c3eee80ee5.jpgPatras: Lipodyssey: A Quest for Precision Treatment (2024) - Team Presentation [English]**Title:** Lipodyssey: A Quest for Precision Treatment **Description:** Presentation video for team Patras, Greece [Wiki](https://2024.igem.wiki/patras) | [Official Page](https://teams.igem.org/5046)https://static.igem.org/peertube/streaming-playlists/hls/107b9d06-5f46-4344-a358-354895375e71/9395fae9-b073-4b54-8c50-a0aa2d63882a-master.m3u8https://video.igem.org/videos/embed/333ZYnUPBrt9otYKgAhijZ6270512024-10-07T12:52:35.631ZYES2024 PresentationsNOhttps://video.igem.org/w/9Jj2JRok7H4aBGkkozz6iqhttps://video.igem.org/lazy-static/thumbnails/e480ec6f-df37-4655-93bf-4ecb434b1b38.jpgSHSID-China: Biosynthesis of Interleukin-18-Binding-Protein for the Treatment of... (2024) - Team...**Title:** Biosynthesis of Interleukin-18-Binding-Protein for the Treatment of Inflammatory Bowel Disease **Description:** Inflammatory Bowel Disease (IBD) is a group of autoimmune diseases that involves the inflammation of the digestive tract. It is currently becoming much more prevalent in Asia due to rapid urbanization and the adoption of Western dietary habits. IBD has a lower onset age than most other chronic diseases. However, there is no effective treatment for IBD. In this context, we utilized genetic engineering techniques to produce a macromolecular drug, Interleukin-18-binding-protein (IL-18BP) to treat IBD. In our project, human IL-18BPa and IL-18BPc genes were modified with SUMO to improve the protein stability, Fc to achieve potential targeted drug delivery, and His tag for purification. Our research results revealed the protein's ability to successfully lower IFN-gamma levels (a sign of inflammation), demonstrating its anti-inflammatory effect and potential application in IBD treatment. [Wiki](https://2024.igem.wiki/shsid-china) | [Official Page](https://teams.igem.org/5522)https://static.igem.org/peertube/streaming-playlists/hls/46b17580-586c-4478-899e-85ead1e30fde/344e088d-faf2-4d08-bde0-950129fd379d-master.m3u8https://video.igem.org/videos/embed/9Jj2JRok7H4aBGkkozz6iq7420132024-10-07T14:10:39.103ZYES2024 PresentationsNOhttps://video.igem.org/w/uX8fF6m98MSXhvPFgssnSXhttps://video.igem.org/lazy-static/thumbnails/d410b775-8bba-41c7-97b3-937bf3bee27c.jpgBeijing-HS: Engineered probiotics regulate short-chain fatty acids in the gut to... (2024) - Team...**Title:** Engineered probiotics regulate short-chain fatty acids in the gut to alleviate depression **Description:** According to statistics from the World Health Organization, there are about 280 million depression patients in the world. Among them, the depression of school-age teenagers is more serious. How to improve the condition of patients is a major problem currently faced. The content of propionate and acetate in the intestine is believed to be related to a variety of diseases, including depression. In this study, we modified the metabolic pathways of the probiotic ECN to increase the content of other short-chain fatty acids such as acetate and propionate, helping to confirm the possibility of incorporating this technology into human practice. In the future, our project could serve as a body regulator used in probiotic capsules to help individuals improve or alleviate the negative effects of depression. [Wiki](https://2024.igem.wiki/beijing-hs) | [Official Page](https://teams.igem.org/5190)https://static.igem.org/peertube/streaming-playlists/hls/ea724278-6898-473d-8043-c6d435e179cf/2c924704-f443-4abf-9f68-43932f9d3678-master.m3u8https://video.igem.org/videos/embed/uX8fF6m98MSXhvPFgssnSX7400222024-10-07T14:18:28.120ZYES2024 PresentationsNOhttps://video.igem.org/w/6vVyZNKCNwCgmha9nCUBFZhttps://video.igem.org/lazy-static/thumbnails/c57056aa-9d48-44fd-8782-9bf8765b73ed.jpgBUCT: Broccoli Master:De novo biosynthesis of sulforaphane in Saccharomyces cere... (2024) - Team...**Title:** Broccoli Master:De novo biosynthesis of sulforaphane in Saccharomyces cerevisiae **Description:** Cancer is a major health issue, and chemotherapy, while a primary treatment, often has severe side effects and limited effectiveness. Sulforaphane, an isothiocyanate found in cruciferous vegetables like broccoli seeds, has strong anti-cancer properties with minimal side effects. However, its production from plants leads to land waste, high costs, and unsustainable practices. We aim to synthesize sulforaphane de novo in Saccharomyces cerevisiae (brewer's yeast) and use computational and synthetic biology to enhance its yield. This approach will reduce costs, land waste, and deforestation, offering a sustainable alternative that supports global climate change efforts and improves human health. [Wiki](https://2024.igem.wiki/buct) | [Official Page](https://teams.igem.org/5327)https://static.igem.org/peertube/streaming-playlists/hls/2cab4690-7fe9-48fd-a6ca-d1a8cbde85fb/ee9826b3-5176-4537-8215-f698369b834a-master.m3u8https://video.igem.org/videos/embed/6vVyZNKCNwCgmha9nCUBFZ6360562024-10-07T14:27:55.043ZYES2024 PresentationsNOhttps://video.igem.org/w/q6nGMUfMpEPQocMi8HEX6Qhttps://video.igem.org/lazy-static/thumbnails/24054ded-a13c-427a-ad9f-5375e2e989a9.jpgWFL-HangzhouBay: Hyaluronidase high-yield yeast cell factory (2024) - Team Presentation [English]**Title:** Hyaluronidase high-yield yeast cell factory **Description:** Patients undergoing surgery often face the issue of local edema or hematoma, which can prolong recovery or cause further complications. Hyaluronidase (HAase) is an enzyme that helps eliminate edema and hematoma and has additional medical uses. Currently, the only commercial source of HAase is from cow testicles, leading to limited supply and the risk of zoonotic disease transmission. Our project employs synthetic biology and genetic engineering to insert an optimized HAase gene from leeches into Pichia pastoris, a yeast known for its robust capacity to secrete recombinant proteins. The optimized gene enhances HAase production and the modified yeast efficiently produces HAase that can be extracted for medical applications, including cancer treatment, drug delivery, postoperative edema and hematoma reduction. Our high-yielding, cost-effective yeast strain promises to increase the availability and purity of HAase, facilitating its broader use in medical treatments. [Wiki](https://2024.igem.wiki/wfl-hangzhoubay) | [Official Page](https://teams.igem.org/5070)https://static.igem.org/peertube/streaming-playlists/hls/c31b6bfc-a0bf-4e2f-a7d6-d5c0a3ff26ae/fcb5ee68-2b62-45ea-85e7-ea09ea0cb63f-master.m3u8https://video.igem.org/videos/embed/q6nGMUfMpEPQocMi8HEX6Q800082024-10-07T16:28:41.992ZYES2024 PresentationsNOhttps://video.igem.org/w/dRyn1DWzEv35vaCsxJFk4Mhttps://video.igem.org/lazy-static/thumbnails/d0eae687-d8a4-4ea8-9f4b-72321efdd77e.jpgCambridge: Magenta - Magnetic Gene Targeting (2024) - Team Presentation [English]**Title:** Magenta - Magnetic Gene Targeting **Description:** Magenta - Magnetic Gene Targeting presentation video from the university of cambridge. [Wiki](https://2024.igem.wiki/cambridge) | [Official Page](https://teams.igem.org/5154)https://static.igem.org/peertube/streaming-playlists/hls/68190d77-693a-43e4-af36-08674c38011f/a4f0676a-a118-4735-8c19-38d48cd36cc7-master.m3u8https://video.igem.org/videos/embed/dRyn1DWzEv35vaCsxJFk4M76601052024-10-07T17:08:08.514ZYES2024 PresentationsNOhttps://video.igem.org/w/575RkGRjJxAaJn4w4hgNxxhttps://video.igem.org/lazy-static/thumbnails/d5723f10-53c8-4a6f-ae3c-bc824e34cfd1.jpgthessaloniki: NeuroMuSceteer; "all for one" against multiple sclerosis (2024) - Team Presentation...**Title:** NeuroMuSceteer; "all for one" against multiple sclerosis **Description:** Multiple Sclerosis is one of the most prominent and most complex neurological disorders in the world. It varies greatly between patients in terms of symptoms, but one factor remains the same for everyone; its irreversibility. Once nerve damage has occurred it is extremely hard to repair it and no available therapy has managed to do so yet. With that in mind, we created NeuroMuSceteer, which combines multiple biomedical innovations in order to target the disease in its entirety. In this video, we detail all our efforts to bring the project in its final form. This includes the design stage, the validation stage and results, all our partnerships and our plans for the future. We hope NeuroMuSceteer inspires the iGEM community and becomes a stepping stone for exciting developments in the field of therapeutics. [Wiki](https://2024.igem.wiki/thessaloniki) | [Official Page](https://teams.igem.org/5310)https://static.igem.org/peertube/streaming-playlists/hls/213e01b0-96fb-4a38-849e-05a8901575d5/3968edc5-ae59-493f-9e9c-d99816591506-master.m3u8https://video.igem.org/videos/embed/575RkGRjJxAaJn4w4hgNxx7720392024-10-07T17:25:42.260ZYES2024 PresentationsNOhttps://video.igem.org/w/a6GYSdMMJz4QKbny9FBCcdhttps://video.igem.org/lazy-static/thumbnails/a43f7d69-5f46-4337-a216-0fc14cc283a7.jpgPatras-Med: Lethe (2024) - Team Presentation [English]**Title:** Lethe **Description:** Welcome to the official presentation of Lethe, the 2024 project by the Patras Medicine iGEM team! In this video, we present our groundbreaking approach to addressing Alzheimer's Disease through cutting-edge synthetic biology. Our multidisciplinary team is dedicated to developing a novel therapeutic strategy with the potential to transform the landscape of Alzheimer's treatment. Through rigorous research and innovative methodologies, Lethe aims to contribute significantly to the advancement of neurodegenerative disease therapies. [Wiki](https://2024.igem.wiki/patras-med) | [Official Page](https://teams.igem.org/5471)https://static.igem.org/peertube/streaming-playlists/hls/49ae38cd-97f8-47f4-ab60-5974b466ee02/d4d7042a-4a3d-43ed-895c-9bc7a19f0a51-master.m3u8https://video.igem.org/videos/embed/a6GYSdMMJz4QKbny9FBCcd73201962024-10-07T20:33:03.112ZYES2024 PresentationsNOhttps://video.igem.org/w/t1QJxqqrkn6CnNv4uamAtnhttps://video.igem.org/lazy-static/thumbnails/c279db0b-aa3c-4835-81da-886759577731.jpgHangzhou-SDG: Engineered E. coli for Heavy Metal Removal in Water Treatment (2024) - Team Present...**Title:** Engineered E. coli for Heavy Metal Removal in Water Treatment **Description:** Heavy metals pose serious health risks, including neurotoxicity, kidney damage, and cancer. Our team enhances bioremediation by engineering E. coli to express rice metallothionein (OsMT1-1b) for effective metal binding and genes from Sporosarcina pasteurii for Microbiologically Induced Calcite Precipitation, turning heavy metal ions into easily removable precipitates. Our engineered bacteria are designed for use in facilities or regions requiring heavy metal remediation, such as industrial wastewater treatment plants. This approach ensures that the solution is practical and scalable, providing a greener alternative to conventional methods and contributing to safer water supplies worldwide. [Wiki](https://2024.igem.wiki/hangzhou-sdg) | [Official Page](https://teams.igem.org/5205)https://static.igem.org/peertube/streaming-playlists/hls/dac4c6e2-7297-4154-b80a-8636ad2e3e6b/abfaa82b-c863-4003-bcdb-afcb5a024dd7-master.m3u8https://video.igem.org/videos/embed/t1QJxqqrkn6CnNv4uamAtn7230172024-10-08T02:05:31.477ZYES2024 PresentationsNOhttps://video.igem.org/w/83WJhRiKy3uBgXpJqWxdWohttps://video.igem.org/lazy-static/thumbnails/3a41bae3-ba1a-4278-b8f4-0fd950530d7b.jpgULaval: Presenting Tyro Tweezers (2024) - Team Presentation [English]**Title:** Presenting Tyro Tweezers **Description:** Our presentation video for ULaval's 2024 iGEM project, Tyro Tweezers. Tyro Tweezers aims to lay the groundwork for a complementary treatment for hereditary tyrosinemia type 1, a metabolic disorder. In this presentation, we share what we worked on for the past year, with an emphasis on a survey of tyrosinemia type 1 patients on their experience with the condition, wet and dry lab manipulations and the communication activities done to share our passion for synthetic biology with the public. [Wiki](https://2024.igem.wiki/ulaval) | [Official Page](https://teams.igem.org/5148)https://static.igem.org/peertube/streaming-playlists/hls/39192faa-7ae1-4b8d-9f0c-2f8e2ee1fe3a/049aff2d-9244-4ef4-9c13-13850006e7da-master.m3u8https://video.igem.org/videos/embed/83WJhRiKy3uBgXpJqWxdWo8540132024-10-08T03:46:01.013ZYES2024 PresentationsNOhttps://video.igem.org/w/iAYNyQTKhriy9DLmfYQDMHhttps://video.igem.org/lazy-static/thumbnails/bad59789-9ca0-4b44-bc48-bd9bae65eb8a.jpgSHSD: Transgenic Silkworms Promoting PET Plastic Degradation (2024) - Team Presentation [English]**Title:** Transgenic Silkworms Promoting PET Plastic Degradation **Description:** In modern society, PET plastic plays an increasingly significant role in our daily lives. Correspondingly, the challenge of effectively degrading PET plastics has drawn the attention of researchers and environmentalists, among other people who concern about the environment. Building on previous research, we created a new silkworm strain by microinjecting recombinant gene expression vectors containing the Fast-PETase and MHETase enzymes, which have been proven to facilitate the degradation of PET plastics. Through further experiments, we demonstrated that the transgenic cocoons secreted by these genetically modified silkworms could effectively degrade PET plastic products. This outcome provides a new solution for biodegradation of PET plastics. Our long-term goal is to achieve industrial-scale production of this new transgenic silk and promote sustainability by enabling the recycling of PET plastics through their degradation byproducts, such as TPA, MHET, and EG, as they are also the raw materials of PET plastics. [Wiki](https://2024.igem.wiki/shsd) | [Official Page](https://teams.igem.org/5200)https://static.igem.org/peertube/streaming-playlists/hls/8e8da6c2-cfc5-45af-ab3e-b69b9f4dfa4f/683a1af2-f3d6-4b51-9ddd-72f12a77b368-master.m3u8https://video.igem.org/videos/embed/iAYNyQTKhriy9DLmfYQDMH7870232024-10-08T03:08:45.986ZYES2024 PresentationsNOhttps://video.igem.org/w/pkeY6c95KiGTHMCxJNFmmihttps://video.igem.org/lazy-static/thumbnails/508ef3a4-8a1a-403c-9252-d5dbfaf1927f.jpgCSU-CHINA: Glycemic Stabilizer (2024) - Team Presentation [English]**Title:** Glycemic Stabilizer **Description:** We are a team from Central South University, and our project name is Glycemic Stabilizer. In our project, we design an AND part and an NOT part to achieve accurate control of blood glucose to help the treatment of type 1 diabetes patients. This video introduces our project background, objectives, principles, safty, future, and mainly focuses on the results of our work. [Wiki](https://2024.igem.wiki/csu-china) | [Official Page](https://teams.igem.org/5156)https://static.igem.org/peertube/streaming-playlists/hls/bcf1eda6-29f6-4761-b392-ff92aa835b61/12dcf553-4d1b-4a59-ba7a-382761a6254d-master.m3u8https://video.igem.org/videos/embed/pkeY6c95KiGTHMCxJNFmmi8730692024-10-08T03:56:16.749ZYES2024 PresentationsNOhttps://video.igem.org/w/93kBM3qdQRKHMGWGNqy3aUhttps://video.igem.org/lazy-static/thumbnails/175f5086-b196-4418-b6d4-f828fdacd0fa.jpgMissouri-Miners: MIDAS - Final (2024) - Team Presentation [English]**Title:** MIDAS - Final **Description:** As the number of bacterial species resistant to antibiotics climbs, more must be done to further prevent the spread of antibiotic resistance. Since the medical, pharmaceutical, and agricultural industries rely on antibiotics to treat bacterial infections, increasing antibiotic resistance hampers our ability to prevent the spread of pathogenic bacteria and treat infections before they become life-threatening. In the United States alone, an estimated 2.8 million infections and 35,000 deaths occur annually because of antibiotic-resistant bacteria. While antibiotics were historically favored over phage therapies due to their greater efficacy, we now benefit from understanding how bacteriophages inject and deliver genetic material and how phages can be altered to specifically target pathogenic bacteria. With the rising concern over the impacts of bacteria resistant to topical antibiotics, another method to control bacterial spread such as bacteriophage therapy needs development. Our team aimed to address this issue through the creation of our Modular Infectious Disease Annihilation System, otherwise known as MIDAS. MIDAS aims to destroy antibiotic-resistant bacteria via pyroptosis by introducing a Craspase system deployed by lambda phages, and fusion proteins. Craspase is an RNA-activated protease, which is the combination of Cas enzymes, gRAMP, and a protease. When activated by the binding of an RNA molecule complementary to the guide RNA, the protease is transiently activated, cleaving a specific target protein. [Wiki](https://2024.igem.wiki/missouri-miners) | [Official Page](https://teams.igem.org/5202)https://static.igem.org/peertube/streaming-playlists/hls/411cafa5-edcf-4f0c-a440-d6ce68e7d4c6/f4c2e9ed-1230-43ac-9bfd-4ac89aece0d2-master.m3u8https://video.igem.org/videos/embed/93kBM3qdQRKHMGWGNqy3aU536082024-10-08T04:48:58.577ZYES2024 PresentationsNOhttps://video.igem.org/w/hDPcotb6FqMz7oVdkxjUeWhttps://video.igem.org/lazy-static/thumbnails/0d5b1a5f-447e-47a5-9335-9029cd411468.jpgULC: Application of SBD in drug resistance TB diagnosis (2024) - Team Presentation [English]**Title:** Application of SBD in drug resistance TB diagnosis **Description:** Currently, around 2 percent of deaths are caused by tuberculosis, especially those possessing drug resistance. Efficient identification of drug-resistant Mycobacterium tuberculosis is urgently required for a fast and scientific treatment. The prevalent polymerase chain reaction (PCR), the chief method used in drug-resistance testing, relies on high-cost equipment and lacks sample point-of-care testing (POCT). Along the research work of Deng Academician's group, our team utilized the sulfur binding domain (SBD) technique to develop a new POCT tool. This protein category embeds sulfur into its hydrophobic cavity and recognizes phosphorothioate DNA(PT-DNA) by hydrogen bonds and electrostatic interactions between the SBD and the DNA. Our project aspires to test SBD's binding capacity to select target-oriented proteins. In the future, these proteins will act as the main ingredient for one detection kit for drug-resistant tuberculosis and contribute to better and timely treatment for patients. [Wiki](https://2024.igem.wiki/ulc) | [Official Page](https://teams.igem.org/5258)https://static.igem.org/peertube/streaming-playlists/hls/86d9d2e6-2584-4b75-b488-53b1720a4a98/276ebb9c-75eb-4bfa-859d-ad2c7ca9d3af-master.m3u8https://video.igem.org/videos/embed/hDPcotb6FqMz7oVdkxjUeW8480222024-10-08T05:57:50.772ZYES2024 PresentationsNOhttps://video.igem.org/w/ntB4okX7oDfM8Y4Dgauyo5https://video.igem.org/lazy-static/thumbnails/644e498f-560d-40a5-aa0a-886316f3c3f8.jpgIEA: AI-Driven Enzyme Engineering for PFAS Degradation Using Protein LLM, Expres... (2024) - Team...**Title:** AI-Driven Enzyme Engineering for PFAS Degradation Using Protein LLM, Expression Classifier, and Cell-Free Expression **Description:** PFAS, or "forever chemicals," are toxic compounds linked to cancers, infertility, and vaccine resistance at concentrations below 1 ppt. The IEA iGEM team is employing AI to design enzymes that break down PFAS through a four-step process: 1. Using protein large language models (pLLMs) and a new enzyme classifier to generate novel PFAS-degrading enzymes. 2. Computationally validating the predicted catalytic activity of these enzymes against PFAS. 3. Assessing the expressibility of the enzymes in a cell-free system to ensure feasibility for lab testing, and as input for a expression classifier that we design. 4. Expressing enzymes successfully, and then sent to a specialized lab to confirm PFAS degradation activity. By combining AI-driven protein design with experimental validation, our approach seeks to provide an efficient and cost-effective solution to combat the environmental and health risks posed by PFAS. [Wiki](https://2024.igem.wiki/iea) | [Official Page](https://teams.igem.org/5035)https://static.igem.org/peertube/streaming-playlists/hls/adea9960-f389-4405-92d1-626c68726890/d28d764b-394a-43b3-9d3c-5734380962d3-master.m3u8https://video.igem.org/videos/embed/ntB4okX7oDfM8Y4Dgauyo58920242024-10-08T07:35:39.529ZYES2024 PresentationsNOhttps://video.igem.org/w/nQj2w9fZ44tgfugVzKAEz4https://video.igem.org/lazy-static/thumbnails/da1fd0e4-8cb1-4a09-b6b1-1af7354471a1.jpgSquirrel-Shanghai: An in vivo SARS-CoV-2 nsp5 inhibitor screening platform (2024) - Team Presenta...**Title:** An in vivo SARS-CoV-2 nsp5 inhibitor screening platform **Description:** The COVID pandemic has very serious consequences, killing more than 7 million people worldwide since its initiation in 2019. Despite the worldwide efforts leading to effective control of the pandemic, the continuous emergence of viral variants has necessitated the ongoing development of SARS-CoV-2 inhibitors. The main protease nsp5 plays a major role in the virus’s life cycle, and also serves as an important drug target for the virus. Our project primarily aims to develop an efficient and reliable in vivo nsp5 inhibitor screening system based on FlipGFP. Additionally, we also desire to investigate the possibility of using nsp5, a sequence-specific protease, as a tool enzyme for removing recombinant tags during protein purification.Our team have successfully obtained functional nsp5 in E. coli and characterized its enzymatic activity. Based on this, we further engineered a nsp5-activated FlipGFP and demonstrated its potential as an in vivo inhibitor screening platform. Additionally, through rational design, we successfully developed the nsp5-T21I mutant with enhanced enzymatic activity. [Wiki](https://2024.igem.wiki/squirrel-shanghai) | [Official Page](https://teams.igem.org/5131)https://static.igem.org/peertube/streaming-playlists/hls/b0ceb8cb-e61a-479c-a131-294bd3cb8435/a468412c-4f5e-404d-abb6-24e35ac825d6-master.m3u8https://video.igem.org/videos/embed/nQj2w9fZ44tgfugVzKAEz48490472024-10-08T07:45:02.270ZYES2024 PresentationsNOhttps://video.igem.org/w/9Ueo8JraC5DPL2qY4aEtpThttps://video.igem.org/lazy-static/thumbnails/9bf3c003-e713-4660-b25d-449a1a595b5c.jpgNEFU-China: Caffeine cycle (2024) - Team Presentation [English]**Title:** Caffeine cycle **Description:** Coffee plays a significant role in modern life, but the coffee grounds produced during its processing have caused serious environmental issues. Each year, the majority of the coffee grounds generated globally are regarded as waste, leading to resource waste and greenhouse gas emissions. Through genetic engineering, research teams are working to convert coffee grounds into valuable compounds, particularly for the synthesis of 7-MX. By combining biosensors with optimized experiments, they have successfully achieved the efficient and eco-friendly production of 7-MX, demonstrating the potential of synthetic biology in sustainable development. [Wiki](https://2024.igem.wiki/nefu-china) | [Official Page](https://teams.igem.org/5313)https://static.igem.org/peertube/streaming-playlists/hls/48140833-11f1-4e4e-9a3d-c6fb32d39795/e2df4e6d-a5c3-453e-b7c7-d6d35e93c1e5-master.m3u8https://video.igem.org/videos/embed/9Ueo8JraC5DPL2qY4aEtpT8980642024-10-08T08:13:42.655ZYES2024 PresentationsNOhttps://video.igem.org/w/cHZJ4oLdHtbsfqMkzfhMQBhttps://video.igem.org/lazy-static/thumbnails/4351d442-ea80-4bec-adb8-6f2f12d83322.jpgCCA-San-Diego: Blight Busters: Solution to Fire Blight (2024) - Team Presentation [English]**Title:** Blight Busters: Solution to Fire Blight **Description:** Blight Busters: a solution that allows fire blight to be treated as soon as an infection occurs. Our team proposes engineering non-pathogenic Pantoea agglomerans to express a darobactin coding sequence when triggered with an infection inducible promoter. In our presentation video, we overview and explain the intricacies of our wet lab, dry lab, human practices, and safety considerations of our project. [Wiki](https://2024.igem.wiki/cca-san-diego) | [Official Page](https://teams.igem.org/5145)https://static.igem.org/peertube/streaming-playlists/hls/5ef1981e-7ebd-4305-b6fe-63b58bc67897/4dc3569c-e604-4213-b2be-f2793c0e6e22-master.m3u8https://video.igem.org/videos/embed/cHZJ4oLdHtbsfqMkzfhMQB7000232024-10-08T08:59:44.483ZYES2024 PresentationsNOhttps://video.igem.org/w/k6yAc1YUnSXXCJaGgcrbXQhttps://video.igem.org/lazy-static/thumbnails/9e20a7b6-97df-4635-bea6-f92a7a2cbccf.jpgBZK-SH: A New Fungal Probe: Innovation of a rapid eco-friendly, and visually fun... (2024) - Team...**Title:** A New Fungal Probe: Innovation of a rapid eco-friendly, and visually fungal-detecting approach **Description:** As a widely distributed eukaryotic microorganism found in nature, some fungi have posed significant threats to food safety and human health through infections. Current fungal detection methods, like DNA isolation and gram staining microscopy, require specialized equipment, experimental conditions, and high costs. Lacking direct visualization capabilities also limits their broad use in food safety inspection and clinical diagnosis. Moreover, the accuracy of microscopy can be affected by difficulties in differentiating various fungi from background noise. To address these issues, we designed a fungi-detecting probe utilizing carbohydrate-binding modules (CBMs) for their special affinity to fungal cell wall polysaccharides and chitin. By combining CBMs with fluorescent proteins, this probe enables rapid, eco-friendly, and visual in situ detection of fungal contamination in samples from different scenarios. [Wiki](https://2024.igem.wiki/bzk-sh) | [Official Page](https://teams.igem.org/5530)https://static.igem.org/peertube/streaming-playlists/hls/9aa46ff7-9568-47ed-8483-16cb4d1a3086/0d445da1-6235-40db-a3a1-8d8019254437-master.m3u8https://video.igem.org/videos/embed/k6yAc1YUnSXXCJaGgcrbXQ7560152024-10-08T09:13:12.679ZYES2024 PresentationsNOhttps://video.igem.org/w/e68dHChnaDQm4Lgnd3pX48https://video.igem.org/lazy-static/thumbnails/ce44021c-81db-42f0-b8d3-94116c31521c.jpgHUBU-WUCHANG-CHINA: Genome-based synthetic biology & site-directed editing of ge... (2024) - Team...**Title:** Genome-based synthetic biology & site-directed editing of genes cultivating nutrient-fortificad rice **Description:** Strategically, we utilize the dose-response of rice genes and the transcriptome regulatory network of endosperm storage protein synthesis genes to guide the reprogramming of rice endosperm storage protein component protein ratios through modeling and prediction. We only mutate the coding genes of two storage proteins without introducing any exogenous genes to improve the nutritional quality, food safety, and taste quality of rice. Technically, we induced rice polyploidy to tetraploid by colchicine, and then mutated glutelin B1 and globulin coding genes OsGluB1 and OsGlb by CRISPR/Cas9 gene editing technology. As a result, the total protein and lysine content were increased (improving nutritional quality); The content of glutelin remained basically unchanged, and globulin almost disappeared (food safety was improved); Increased prolamine content (improved taste quality). [Wiki](https://2024.igem.wiki/hubu-wuchang-china) | [Official Page](https://teams.igem.org/5167)https://static.igem.org/peertube/streaming-playlists/hls/69fdf870-4885-4aa7-a294-ccd6f78ce569/55119772-4323-4988-af54-9349e59fde09-master.m3u8https://video.igem.org/videos/embed/e68dHChnaDQm4Lgnd3pX488430262024-10-08T09:45:13.661ZYES2024 PresentationsNOhttps://video.igem.org/w/9AZ7MkUF1agd9zCZVdY45dhttps://video.igem.org/lazy-static/thumbnails/7deece46-4d47-476e-95ff-6eee2bd90650.jpgTestDaily-I-Beijing: Enhancing Bone Repair: Solving the Burst Release Problem in... (2024) - Team...**Title:** Enhancing Bone Repair: Solving the Burst Release Problem in Regenerative Materials with Fusion-Expressed Cell Factors **Description:** Bone injuries, scoliosis, and bone defects are major health issues in China, caused by trauma, infections, tumors, or congenital diseases, causing functional impairment and pain. Current treatments like autografts, allografts, and artificial bone materials have limitations. Autografts are limited by donor availability and need extra surgery. Allografts risk rejection and infection. Artificial bone materials lack biocompatibility and bioactive components. Our study aims to develop a dual-cell factor(VEGF&BMP-4) release system with collagen-binding properties, addressing the limitations of artificial bone materials, to ensure safe and rapid bone formation, reducing risks of oncogenesis and ectopic ossification. The innovative dual-cell factor release design allows for the enhancement of repair efficacy while reducing the side effects associated with non-sequential release, to offer a far more efficient and safer bone repair solution. The proposed system illustrates significant potential for broad clinical applications, by elevating and refining the treatment of bone defects and associated conditions. [Wiki](https://2024.igem.wiki/testdaily-i-beijing) | [Official Page](https://teams.igem.org/5374)https://static.igem.org/peertube/streaming-playlists/hls/45ab98d6-1ae6-4494-9251-d4fd047b7f40/2ce74367-17d0-4eaa-90aa-f998aeb6e2a4-master.m3u8https://video.igem.org/videos/embed/9AZ7MkUF1agd9zCZVdY45d8840412024-10-08T10:12:04.212ZYES2024 PresentationsNOhttps://video.igem.org/w/39fv7UxExrWGn2bBW9jEPYhttps://video.igem.org/lazy-static/thumbnails/e1a2ce2c-a390-44d9-912f-cb2f24dab2bf.jpgSubCat-Shanghai: Green production of active folates (2024) - Team Presentation [English]**Title:** Green production of active folates **Description:** A subset of pregnant women is unable to metabolize folic acid into its active form, a deficiency that can result in congenital malformations. These women require supplementation with the active form of folic acid. However, the production of active folic acid is hindered by low yields, high costs, and potential food safety concerns. Our project seeks to overcome these challenges by using genetic engineering to develop bacterial strains capable of expressing the enzymes required to convert folate into its active form. This approach has the potential to enable large-scale biological production of active folate. In the future, our research may provide a viable health supplement for pregnant women with impaired folic acid metabolism. [Wiki](https://2024.igem.wiki/subcat-shanghai) | [Official Page](https://teams.igem.org/5189)https://static.igem.org/peertube/streaming-playlists/hls/11592a28-f7d3-48a7-984b-1d9ccb22d406/56a7e0e5-d7b1-4ef5-aa15-1a44516104dd-master.m3u8https://video.igem.org/videos/embed/39fv7UxExrWGn2bBW9jEPY8990242024-10-08T10:22:17.266ZYES2024 PresentationsNOhttps://video.igem.org/w/v5nm4RVjDQDSjpir8RhLeihttps://video.igem.org/lazy-static/thumbnails/8fe27d4d-4e65-4aed-a3f6-d9fb3354cd49.jpgZhejiang-United: Development of a genetic engineered EcN for the treatment of in... (2024) - Team...**Title:** Development of a genetic engineered EcN for the treatment of inflammatory bowel disease **Description:** EcN can be used as a probiotic for the treatment of intestinal-related diseases due to its good intestinal short-term colonization ability and non-pathogenicity. In recent years, targeted drugs represented by monoclonal antibodies have greatly improved the clinical treatment effect of inflammatory bowel disease, but there are unmet needs such as high prices, unresponsiveness of some patients, infection caused by long-term medication, and poor patient compliance. Using synthetic biology techniques, we expressed the novel nano antibodies in EcN. After oral administration of the engineered EcN, these nano-antibodies will be continuously secreted in the inflammatory intestinal tract, and the inflammatory signaling pathway was blocked to achieve efficient, safe, convenient, and low-cost treatment. [Wiki](https://2024.igem.wiki/zhejiang-united) | [Official Page](https://teams.igem.org/5067)https://static.igem.org/peertube/streaming-playlists/hls/eb7526b1-6501-4c2c-960f-167aca4588e3/d8cee5ae-48d8-446e-8fcf-2fb0e8d6ffd5-master.m3u8https://video.igem.org/videos/embed/v5nm4RVjDQDSjpir8RhLei6340242024-10-08T10:29:34.128ZYES2024 PresentationsNOhttps://video.igem.org/w/wAKHwWQDebSxuMBW13wiM6https://video.igem.org/lazy-static/thumbnails/f61c6863-9360-4718-bc19-d72ee6f86d21.jpgSquirrel-CHN-II: SHEDer(Saliva-Based HBV Early Detector) (2024) - Team Presentation [English]**Title:** SHEDer(Saliva-Based HBV Early Detector) **Description:** Hepatitis B virus (HBV) infection remains a global concern, even with the implement of HBV vaccination. The current HBV detection is mainly blood serum-based, which is invasive, expensive and needs some waiting time to obtain the test results. Our project aims to develop a rapid, reliable, and low-cost detection system for HBV virus infection using the CRISPR/Cas12 and RPA technologies combined in one-pot assay to facilitate the screening and treatment of Hepatitis B disease. [Wiki](https://2024.igem.wiki/squirrel-chn-ii) | [Official Page](https://teams.igem.org/5132)https://static.igem.org/peertube/streaming-playlists/hls/f7cc6394-3ed6-48fc-9b81-b914ced2466b/9e5d8070-e808-4aaa-92d0-74657c010a48-master.m3u8https://video.igem.org/videos/embed/wAKHwWQDebSxuMBW13wiM68560592024-10-08T10:44:26.757ZYES2024 PresentationsNOhttps://video.igem.org/w/h8t6G6GbzZJjeqTCCvxQmZhttps://video.igem.org/lazy-static/thumbnails/9f98d76f-1ca4-4e55-b75b-de1d29aa2330.jpgTJI-Seoul: Image-Based Machine Learning of Keratin-Intermediate Filaments: A Nov... (2024) - Team...**Title:** Image-Based Machine Learning of Keratin-Intermediate Filaments: A Novel Tool for Skin Cancer Metastasis Risk Stratification **Description:** This project aims to develop an innovative machine learning model to predict skin cancer metastasis by analyzing keratin filament structures in keratinocytes. Skin cancer is a prevalent global health issue, with millions of cases diagnosed annually. While less lethal than other cancers, its potential to metastasize poses a significant threat. Current prognostic methods have limitations, including reliance on traditional examinations, pathologist shortages, and potential for false results. The project focuses on keratin, a family of proteins crucial for cell mechanics and signaling, as changes in keratin expression have been linked to increased cancer cell invasiveness and metastatic potential. By leveraging image-based machine learning to assess keratin structural features, the goal is to create a more accurate prediction tool for metastatic potential, enhancing risk stratification and guiding treatment decisions in skin cancer management. [Wiki](https://2024.igem.wiki/tji-seoul) | [Official Page](https://teams.igem.org/5421)https://static.igem.org/peertube/streaming-playlists/hls/829d1ff0-845a-42e5-ab05-52e2f1745629/88e88547-6f7c-46ef-bec1-8127504e8216-master.m3u8https://video.igem.org/videos/embed/h8t6G6GbzZJjeqTCCvxQmZ6560362024-10-08T10:52:14.530ZYES2024 PresentationsNOhttps://video.igem.org/w/6rhLYyBc9ghdWKZSUaNWvjhttps://video.igem.org/lazy-static/thumbnails/0a333533-7594-4b83-a19a-1448a26ba8b5.jpgSubCat-China: Directional mining of terpene skin care products in deep-sea metag... (2024) - Team...**Title:** Directional mining of terpene skin care products in deep-sea metagenome **Description:** The various extreme environments of the deep sea (≥1000 m) form a high degree of biodiversity, with abundant genetic resources and biosynthetic potential. In this project, based on deep-sea microbial metagenomic data mining, high-value terpene natural products with skin care activity will be mined. Metagenomic analysis will be performed on samples from deep-sea ecosystems, and deep-sea microbial genome sets and biosynthetic gene clusters will be constructed. Directional mining of biosynthetic gene clusters of terpene natural products in 1-2 deep-sea microorganisms, and analysis of product structure. Finally, the biological activities of terpene natural products such as antibacterial, anti-inflammatory and neuroprotective effects were evaluated to provide a research basis for their application in the field of skin care products. [Wiki](https://2024.igem.wiki/subcat-china) | [Official Page](https://teams.igem.org/5071)https://static.igem.org/peertube/streaming-playlists/hls/2c05a033-0b51-4615-9f89-137767324f7c/2e7324ea-c910-4cd3-9ba6-8bbb35de789f-master.m3u8https://video.igem.org/videos/embed/6rhLYyBc9ghdWKZSUaNWvj8660152024-10-08T11:23:40.797ZYES2024 PresentationsNOhttps://video.igem.org/w/gp6v6N4svsMp8Z6GDFqkBKhttps://video.igem.org/lazy-static/thumbnails/44c3d686-dfb7-48df-a077-fc4463aa87fb.jpgSubCat-Peking: Design of Escherichia coli resistant to T7 phage infection based ... (2024) - Team...**Title:** Design of Escherichia coli resistant to T7 phage infection based on CRISPR-Cas9 **Description:** Escherichia coli is one of the most important chassis cells in industrial production and has become one of the important tools in bioengineering and industrial production. However, the industrial application of E.coli is often threatened by phage infection. Among them, T7 phage is one of the common industrial harmful phages, which has strong infectivity to E.coli. It may lead to pollution in the production process, which in turn affects production efficiency and product quality, and even causes production interruption and economic losses. Our project aims to use CRISPR-Cas9 technology to design E.coli strains resistant to T7 phage infection. By accurately cutting the key genes of the T7 phage genome, the resistance of E.coli to T7 phage infection is enhanced, which is expected to improve the stability and reliability of E.coli in industrial production. [Wiki](https://2024.igem.wiki/subcat-peking) | [Official Page](https://teams.igem.org/5072)https://static.igem.org/peertube/streaming-playlists/hls/7cb293c1-32db-4f18-9cf8-58f18b2a9495/d512594a-88d2-430e-b83d-59aa7af7c549-master.m3u8https://video.igem.org/videos/embed/gp6v6N4svsMp8Z6GDFqkBK8420152024-10-08T11:40:24.861ZYES2024 PresentationsNOhttps://video.igem.org/w/hn1ect1sq38a6G4x8quPohhttps://video.igem.org/lazy-static/thumbnails/ef1cc93f-b044-44a9-ab23-275575b69fe7.jpgLund: Methane RemOOver - Reducing Methane Emissions from Cattle (2024) - Team Presentation [English]**Title:** Methane RemOOver - Reducing Methane Emissions from Cattle **Description:** Discover how we use synthetic biology to combat methane emissions from cattle, a major contributor to global warming. In our video, we explore the problem—cows release significant amounts of methane, intensifying climate change—and our solution: genetically engineered bacteria that produce bromoform to reduce methane production in the cows' rumen. You'll also learn about our results, human practices, and more. This innovative approach offers a sustainable, long-term strategy for reducing greenhouse gases and fighting climate change. Watch to follow our journey in making it possible! [Wiki](https://2024.igem.wiki/lund) | [Official Page](https://teams.igem.org/5213)https://static.igem.org/peertube/streaming-playlists/hls/8480fa5b-996e-44f9-ab2d-0a70e9582328/23df92fc-f8bd-4709-bf73-82aca6429460-master.m3u8https://video.igem.org/videos/embed/hn1ect1sq38a6G4x8quPoh8860252024-10-08T12:09:38.604ZYES2024 PresentationsNOhttps://video.igem.org/w/m2PbJ27GXQVsAGNbGDsbbihttps://video.igem.org/lazy-static/thumbnails/29434cd5-2a71-459a-a5c9-e30c77ae9e24.jpgJilin-China: LuminiTouch - A novel mechanoluminesence biosensor (2024) - Team Presentation [English]**Title:** LuminiTouch - A novel mechanoluminesence biosensor **Description:** Inspired by bioluminescent sea, this year, Jilin-China developed a novel mechanoluminescent hydrogel biosensor. Using luciferase-producing bacteria in sodium alginate hydrogels, the material converts pressure into light. This approach may be applied in many areas like tumor early warning, gait analysis and beyond. We believe it will advance technology and illuminate everyone's future. [Wiki](https://2024.igem.wiki/jilin-china) | [Official Page](https://teams.igem.org/5446)https://static.igem.org/peertube/streaming-playlists/hls/a237987f-d349-49ee-8fad-a0e715911f9d/12aa7d9d-2905-4de5-a482-2e63c8cbc74f-master.m3u8https://video.igem.org/videos/embed/m2PbJ27GXQVsAGNbGDsbbi87751562024-10-08T12:47:14.259ZYES2024 PresentationsNOhttps://video.igem.org/w/thQocitdoxhNYvHHQU9hf8https://video.igem.org/lazy-static/thumbnails/e22c6bb1-c262-431d-b849-c387872a411f.jpgSubCat-HS: Early screening products for Parkinson’s disease (2024) - Team Presentation [English]**Title:** Early screening products for Parkinson’s disease **Description:** Parkinson’s disease (PD) is one of the most common neurodegenerative diseases. Early screening of the disease is a key measure to prevent the occurrence and development of the disease. NF-L is a universal marker of nerve damage and is elevated in a variety of neurodegenerative diseases, including PD. In the early stages of PD, elevated NF-L levels can be detected. Using α-synuclein, Aβ42, and NF-L as biomarkers simultaneously can improve the sensitivity and specificity of PD diagnosis. Each marker provides a different pathological perspective, making the comprehensive analysis more comprehensive. This study intends to obtain PD-specific markers α-syn, Aβ42, and NF-L through genetic engineering, and use ELISA to verify the accuracy of the obtained proteins, which can lay a good foundation for the acquisition of specific antibodies and the construction of early screening kits in the future. [Wiki](https://2024.igem.wiki/subcat-hs) | [Official Page](https://teams.igem.org/5533)https://static.igem.org/peertube/streaming-playlists/hls/dd007605-5dbc-4b04-9bec-8e423e1e5fb3/21828413-0ab4-403f-bf5e-9ca9dc705a6b-master.m3u8https://video.igem.org/videos/embed/thQocitdoxhNYvHHQU9hf88880402024-10-08T12:57:37.422ZYES2024 PresentationsNOhttps://video.igem.org/w/sdvrk79QJxnqnrsM7TD6W5https://video.igem.org/lazy-static/thumbnails/e0e9738f-2fe0-49dc-9085-b4da2ca00b39.jpgLCG-Global: Open-Source Modular POCT System for Multi-Biomarker Detection and Fu... (2024) - Team...**Title:** Open-Source Modular POCT System for Multi-Biomarker Detection and Future Expansion **Description:** Our team initially addressed the challenges of chronic disease management, focusing on hypertension, hyperlipidemia, hyperglycemia, and obesity. We developed hybrid architecture of a home-based Point-of-Care Testing (POCT) system for detecting key biomarkers like glucose and uric acid using plasmid-based biosensors engineered with synthetic biology. These biosensors offer enhanced accuracy and reduced recalibration compared to traditional electrochemical methods. To complement the biosensors, we designed a hardware platform that seamlessly integrates with biomarker detection. Human practices shaped the system’s key performance specifications, such as affordability, compactness, and biosafety. As the project evolved, we incorporated modularity, allowing for multi-biomarker detection and scalability. This flexible, open-source platform enables easy biomarker replacement and broader health applications, contributing to future innovations in personalized diagnostics and for the iGEM community. [Wiki](https://2024.igem.wiki/lcg-global) | [Official Page](https://teams.igem.org/5460)https://static.igem.org/peertube/streaming-playlists/hls/d44cabe2-22e1-4d3f-888a-36b91d5aceec/d6d70d4e-f491-4810-992b-762582178e69-master.m3u8https://video.igem.org/videos/embed/sdvrk79QJxnqnrsM7TD6W58970432024-10-08T12:35:18.122ZYES2024 PresentationsNOhttps://video.igem.org/w/vaMoChaPhyFAx4xiDY38UMhttps://video.igem.org/lazy-static/thumbnails/4239bd24-0b42-4fd2-b7ba-ac0b61fce64c.jpgXJTLU-Software: ChatParts: An AI Based Tool for Parts Search (2024) - Team Presentation [English]**Title:** ChatParts: An AI Based Tool for Parts Search **Description:** Description: We are the XJTLU-Software 2024 team, and our project, Chatparts, is an AI-driven tool designed to enhance the management and retrieval of information in the iGEM parts registry. Over the years, iGEM teams have contributed a vast number of DNA elements to this open database, but we noticed that the internal data quality is uneven, with some parts lacking integrity, descriptions, and optimizations. To address these challenges, we developed Chatparts, an AI Agent that integrates iGEM parts information using a Retrieve-Augmented Generation (RAG) system, reorganizing data management and retrieval to be more efficient. We aim to provide researchers, educators, and students interested in synthetic biology with a better platform for information collection, integration, and outreach, offering tools for quick entry, understanding, and the integration of specialized knowledge. We also established the iGEM ChatParts Community to promote the widespread use of our AI Agent. Welcome to click 2024.igem.wiki/xjtlu-software/index.html to learn more. Actors: Baiding Chen, Haiyu Pu, Qiayi Zha, Siying Han, Yifei Wang, YIfei Hu. Editors: Baiding Chen, Qiayi Zha [Wiki](https://2024.igem.wiki/xjtlu-software) | [Official Page](https://teams.igem.org/5256)https://static.igem.org/peertube/streaming-playlists/hls/ec36b00d-ba4f-4a9b-8362-0659e36df0a1/562580af-5aae-4413-96b7-885c4a65d4d5-master.m3u8https://video.igem.org/videos/embed/vaMoChaPhyFAx4xiDY38UM7895262024-10-08T14:03:21.236ZYES2024 PresentationsNOhttps://video.igem.org/w/ozJknNdehrBqriAkS55Zw4https://video.igem.org/lazy-static/thumbnails/a2107fe9-eafe-4321-b6a2-a06d7110d40c.jpgCJUH-JLU-China: Heartecho: A cancer screening kit for post-myocardial infarction... (2024) - Team...**Title:** Heartecho: A cancer screening kit for post-myocardial infarction patients **Description:** Patients with cardiovascular diseases (CVDs) such as myocardial infarction (MI) have an increased risk of developing cancer. The emerging research field of Reverse Cardio-Oncology demonstrates that multiple cardiovascular diseases, including MI, could promote cancer progression. To identify MI patients at risk of developing cancer, we designed a screening kit Heartecho which employs a Loop-Initiated RNA Activator (LIRA)-based AND logic gate system that can detect the microRNAs that are both highly expressed in MI patients and capable of promoting cancer. We employed comprehensive bioinformatics methods to identify two miRNAs, miR-142-3p and miR-210-3p, as optimal biomarkers which can be detected by LIRA we designed for cancer screening. Finally, we chose chromogenic method to indicate results visibly. The detection liquid will change color from yellow to purple to indicate the positive result. As a new detection system, Heartecho provides a rapid and simple way to help MI patients aware of risk of cancer. [Wiki](https://2024.igem.wiki/cjuh-jlu-china) | [Official Page](https://teams.igem.org/5038)https://static.igem.org/peertube/streaming-playlists/hls/b6deaf29-58f9-4771-8063-aabb2119c8b3/dea628bf-2d7a-47c2-b131-4daf48b43733-master.m3u8https://video.igem.org/videos/embed/ozJknNdehrBqriAkS55Zw489304492024-10-08T14:14:04.351ZYES2024 PresentationsNOhttps://video.igem.org/w/e7rSM6wF6JTdWpXJS9HEEvhttps://video.igem.org/lazy-static/thumbnails/fac1ae46-a7a9-4052-970b-2945dae8a0cc.jpgTHISDL-United: 5259 (2024) - Team Presentation [English]**Title:** 5259 **Description:** Our project aims at establishing new technical strategy to address the potential dual-use risks of synthetic biology research. Briefly, we will use photosynthetic cyanobacterium Synechococcus elongatus PCC 7942 as a model system, and develop a biocontainment system integrating a temperature-based mobility arresting and logic gate-based killing “double-safe” system, eventually achieving goal of minimizing environmental risks due to the unintentional leakage and consequences of engineered chassis organisms from the lab. The mobility arresting system is constructed based on a temperature-sensitive regulatory system PR-cI857 from λ bacteriophage to promote the expression of crRNA (CRISPR-dCas12a) targeting cell pili at a temperature lower than 37°C. The logic gate based killing system coupled the PR-cI857 regulatory system with a genetic circuit employing toxin-antitoxin systems, to ensure that the engineered cyanobacteria are not able to survive in non-permissive conditions, such as natural environments with night temperature typically below 30°C, but grow normally under laboratory conditions (37°C). It worth noting that our temperature sensing system avoids the addition of any exogenous chemical inducer, not only cutting down the cost but also decease any secondary chemical contamination. Escape experiments conducted under both laboratory conditions and stimulated natural pond conditions in Tianjin, China demonstrated that the system has successfully achieved biocontainment with survival rates below the standard proposed by the National Institute of Health (NIH) guidelines for organisms containing recombinant DNA molecules (10−8). Finally, the strategy we developed could also be implemented in many other bacterial chasses readily with minor modification. [Wiki](https://2024.igem.wiki/thisdl-united) | [Official Page](https://teams.igem.org/5259)https://static.igem.org/peertube/streaming-playlists/hls/6a2d3626-a98a-407b-9a9a-c01dc57a3139/a959be25-a7f7-4b64-b257-58966b5597e2-master.m3u8https://video.igem.org/videos/embed/e7rSM6wF6JTdWpXJS9HEEv8810122024-10-08T21:15:03.284ZYES2024 PresentationsNOhttps://video.igem.org/w/tBsXyS64LDzxwnCLCs16tihttps://video.igem.org/lazy-static/thumbnails/0a9049d3-08fd-4ec2-aad5-08ae6924502f.jpgMingdao: Enhancing Animal Feed with Surface-Displayed Xylanase on Pichia Pastoris (2024) - Team P...**Title:** Enhancing Animal Feed with Surface-Displayed Xylanase on Pichia Pastoris **Description:** Our project focuses on enhancing feed digestibility and nutrient absorption in livestock by using Pichia Pastoris to surface-display thermostable xylanase from Streptomyces Thermovulgaris. To achieve this, we conducted various experiments, including DNS assays, 3D modeling, optimization of enzyme activity conditions, and even more. In this video, we'll present the details of our approach and findings. [Wiki](https://2024.igem.wiki/mingdao) | [Official Page](https://teams.igem.org/5049)https://static.igem.org/peertube/streaming-playlists/hls/df9a63a6-3b88-423a-befa-b8e76f008803/2a83b016-7e38-43e3-a280-cbbeaddef2f7-master.m3u8https://video.igem.org/videos/embed/tBsXyS64LDzxwnCLCs16ti7940232024-10-08T12:57:39.779ZYES2024 PresentationsNOhttps://video.igem.org/w/9YUTBdFk5T2Zmhxttjxoaihttps://video.igem.org/lazy-static/thumbnails/ada9a880-0945-4f6e-aad7-c2ac08f969ed.jpgECIB-PKU: black myth (2024) - Team Presentation [English]**Title:** black myth **Description:** Our goal is to offer new perspectives and solutions to tackle the challenges of radiation. We firmly believe that through persistent endeavors, we can ensure the safety and success of humanity’s journey through the cosmos. [Wiki](https://2024.igem.wiki/ecib-pku) | [Official Page](https://teams.igem.org/5241)https://static.igem.org/peertube/streaming-playlists/hls/48bb5ad9-b910-4fc5-972c-e91e320a234b/24ad599e-6041-4a23-9237-6d574c4f6d8b-master.m3u8https://video.igem.org/videos/embed/9YUTBdFk5T2Zmhxttjxoai7060262024-10-08T13:12:40.477ZYES2024 PresentationsNOhttps://video.igem.org/w/t67NWmHsqMemvbWmubkRZ4https://video.igem.org/lazy-static/thumbnails/9a56d89e-ba1b-4bdc-9f3d-8b00e58d5137.jpgShanghai-city: Visual biosensors for mercury and cadmium heavy metal ions (2024) - Team Presentat...**Title:** Visual biosensors for mercury and cadmium heavy metal ions **Description:** The increasing prevalence of heavy metal contamination poses significant risks to ecosystems and human health. Existing detection methods for heavy metals often suffer from limitations such as lengthy processing times, high costs, and inadequate sensitivity, making them less effective for real-time monitoring. This project aims to develop a whole-cell biosensor leveraging the natural pigments to visually indicate the heavy metals in water. By integrating metal-responsive transcriptional regulators MerR and CadR with the pigment biosynthesis gene clusters, we engineered E. coli as the biosensor capable of detecting Hg (II) and Cd (II). The biosensor exhibits high sensitivity and selectivity, with clear colorimetric changes correlated to metal ion concentrations. This innovative biosensor offers a promising tool for environmental monitoring, enabling rapid and accessible detection of heavy metal pollutants, and could be further adapted for use in various ecological and industrial applications, enhancing environmental safety and public health initiatives. [Wiki](https://2024.igem.wiki/shanghai-city) | [Official Page](https://teams.igem.org/5068)https://static.igem.org/peertube/streaming-playlists/hls/db5da8b5-f585-4065-9fd2-58596bea79e9/4df97ae7-ec3b-472b-a01f-ac5486cbbc5e-master.m3u8https://video.igem.org/videos/embed/t67NWmHsqMemvbWmubkRZ48860112024-10-09T00:28:32.900ZYES2024 PresentationsNOhttps://video.igem.org/w/ffw7r8dCVuGWGfHQh9ZYFDhttps://video.igem.org/lazy-static/thumbnails/fc02a281-babc-4c8a-bdc6-eba48557727d.jpgSWUer-China: AFPScan (2024) - Team Presentation [English]**Title:** AFPScan **Description:** With the global incidence of fungal infections rising each year, over 300 million individuals are currently afflicted by severe fungal infections annually. The treatment success rate of antifungal drugs is only 67.4%, and the resistance is becoming increasingly critical. In response to this challenge, SWU-China team is focused on developing an innovative and efficient method for the high-throughput screening of antifungal peptides (AFP) utilizing deep learning techniques.The team employs the DeBERTa model to rapidly identify potential antifungal peptide sequence patterns from existing AFP data and predict the activity of candidate antimicrobial peptides from the NCBI database. Compared to conventional wet-lab methods, this model-driven approach offers significant improvements in both screening efficiency and accuracy.Through this project, we are committed to raising public awareness regarding fungal infections and antibiotic resistance. Simultaneously, we aim to provide novel solutions for medicine development, reducing the global health risks associated with fungal infections. [Wiki](https://2024.igem.wiki/swuer-china) | [Official Page](https://teams.igem.org/5183)https://static.igem.org/peertube/streaming-playlists/hls/7366e918-9b2d-4227-b5d5-4df5d7226ec3/c17aace4-0ffa-4b48-9e9d-ee4bab9c8818-master.m3u8https://video.igem.org/videos/embed/ffw7r8dCVuGWGfHQh9ZYFD9000152024-10-08T13:35:01.731ZYES2024 PresentationsNOhttps://video.igem.org/w/ctVp6VAgoKuC3emLQKgnH7https://video.igem.org/lazy-static/thumbnails/db1b4036-c6a5-4f31-970a-294404fd4006.jpgYiYe-Wuhan: siRNAs that Targeting TEAD4 Serve as an Emerging Drug for the Treatm... (2024) - Team...**Title:** siRNAs that Targeting TEAD4 Serve as an Emerging Drug for the Treatment of Colorectal Cancer **Description:** Colorectal cancer is a leading cause of cancer-related mortality worldwide. This project focuses on developing a novel targeted therapy by inhibiting the TEAD4 gene, a key regulator in the Hippo signaling pathway that plays a significant role in colorectal cancer progression. We have designed two plasmids that efficiently suppress TEAD4 expression. Our results indicate that elevated levels of TEAD4-targeting siRNAs in the colorectal cancer cell line SW480 lead to inhibition of tumor cell proliferation and migration, as well as increased reactive oxygen species (ROS) expression. These findings suggest that this RNA interference vector could serve as a promising therapeutic candidate for colorectal cancer treatment. [Wiki](https://2024.igem.wiki/yiye-wuhan) | [Official Page](https://teams.igem.org/5407)https://static.igem.org/peertube/streaming-playlists/hls/5cfa83d2-688a-4530-8613-541ae0688b4c/f9076546-fb2c-43ac-998b-706686019bc5-master.m3u8https://video.igem.org/videos/embed/ctVp6VAgoKuC3emLQKgnH78930132024-10-08T14:55:40.158ZYES2024 PresentationsNOhttps://video.igem.org/w/oXkZAQ7ATnwnUB2v4WKEgphttps://video.igem.org/lazy-static/thumbnails/bd622a6d-454a-4c94-bde1-0a72e5a29e0b.jpgSquirrel-Beijing-I: A soothing nasal suction complex, no taboos to ride a roller... (2024) - Team...**Title:** A soothing nasal suction complex, no taboos to ride a roller coaster! **Description:** Riding a roller coaster is a thrilling entertainment activity, however, adverse reactions unavoidably occur, such as dizziness, vomiting, head tremors. In addition, activities related with vestibular functions including riding, boating and bungee jumping would also bring the similar side effects. Based on our recent invivo studies, vitamin B6 and B12 took effects in nourishing vestibular functional areas mainly through increasing the permeability of vascular endothelial cells and regulating special signal pathways. Therefore, in the present project, we planned to research and develop a soothing nasal suction complex to minimize vestibular function damages. Through constructing neurons damage model, the effects of VB6/VB12 and their combinations in alleviating neuron injuries were primarily evaluated, and their best ratio were selected, the molecular mechanism was further validated.. Then, VB6/VB12 nanoparticles were prepared with ursolic acid, to promise the slow-release effects. With feedback gathering, we hope to create an effective and novel remedy. [Wiki](https://2024.igem.wiki/squirrel-beijing-i) | [Official Page](https://teams.igem.org/5081)https://static.igem.org/peertube/streaming-playlists/hls/b9e34770-ab51-4243-803c-d4b82335bc8d/5f6e3659-eee4-42f9-80e2-c1468dbd0a7a-master.m3u8https://video.igem.org/videos/embed/oXkZAQ7ATnwnUB2v4WKEgp8740192024-10-08T15:18:45.618ZYES2024 PresentationsNOhttps://video.igem.org/w/tjHCkQexs6icpnEkFVNs2Mhttps://video.igem.org/lazy-static/thumbnails/7b8bc6ba-0b2c-43a0-a398-02dc3d5f0e0b.jpgJIASHU-SouthChina: Joy-filled Drink - the application of Kaempferol and GABA (2024) - Team Presen...**Title:** Joy-filled Drink - the application of Kaempferol and GABA **Description:** The JIASHU-SouthChina team is developing an innovative solution for stress relief and depression management through the Joy-filled Drink project. By engineering E. coli Nissle 1917, we have successfully produced kaempferol and GABA, two compounds known for their positive effects on mood and mental health. To optimize kaempferol production, we explored the use of fusion enzymes and tested various linkers (GGGS, GGGS2, TPTP, TPTP2), identifying those that significantly improved the kaempfero yield. Additionally, we examined the impact of multi-copy genes and found that F3H boosts production while FLS has the opposite effect. Our vision is to integrate these compounds into fruit tea, bringing an accessible and natural option for emotional well-being to the market. This project showcases the power of synthetic biology in addressing mental health challenges. [Wiki](https://2024.igem.wiki/jiashu-southchina) | [Official Page](https://teams.igem.org/5482)https://static.igem.org/peertube/streaming-playlists/hls/dd43c8f4-1089-4c2f-b866-594adb7f1daf/68366795-05fc-494c-a5ab-77be7831a413-master.m3u8https://video.igem.org/videos/embed/tjHCkQexs6icpnEkFVNs2M8250362024-10-08T15:30:25.981ZYES2024 PresentationsNOhttps://video.igem.org/w/jBFAX3EMjbYCTon6mqwfdzhttps://video.igem.org/lazy-static/thumbnails/0ec78890-0c76-4c77-8b7e-6b4aeaf5824e.jpgSRE-China: Envisioned Attempts for Successful Use of WGX-50 (2024) - Team Presentation [English]**Title:** Envisioned Attempts for Successful Use of WGX-50 **Description:** Our SRE‘s’ project focuses on the anti-aging pharmacological activity of WGX-50 small molecule. This video introduces the details of our project from why our team chose anti-aging as the theme, Human Practice's attempts, how to find WGX-50, C.elegans lifespan test and molecular simulation process, experimental testing process and data, experimental results and social significance in detail. [Wiki](https://2024.igem.wiki/sre-china) | [Official Page](https://teams.igem.org/5496)https://static.igem.org/peertube/streaming-playlists/hls/96bfef0c-427e-495d-99ab-e8cb6ef94541/fc77cf44-5ca5-407a-a659-6a92604e2ce3-master.m3u8https://video.igem.org/videos/embed/jBFAX3EMjbYCTon6mqwfdz8670272024-10-08T15:41:13.948ZYES2024 PresentationsNOhttps://video.igem.org/w/ghK5VbBWnFhVarf3Etnrf6https://video.igem.org/lazy-static/thumbnails/0f90aece-b5f9-40c8-9c89-7b874102c15a.jpgJIASHU-China: Coli Bond (2024) - Team Presentation [English]**Title:** Coli Bond **Description:** In the digital age, information security is paramount. Coli Bond leverages synthetic biology to provide a novel solution: encoding and transmitting information using genetically engineered E. coli. By converting Chinese characters into DNA sequences, our system safely stores this information within bacterial cells. The bacteria only grow under specific conditions, enhancing security, and possess a built-in self-destruct mechanism activated by high temperatures. This ensures that sensitive data remains protected, even in the event of a breach. Our system offers a cutting-edge method for secure, biological data encryption and transfer. [Wiki](https://2024.igem.wiki/jiashu-china) | [Official Page](https://teams.igem.org/5480)https://static.igem.org/peertube/streaming-playlists/hls/7bcf883b-5d69-4408-9ea9-f0608b3daded/74afa9a2-9a29-462a-aa24-efc3fae4f969-master.m3u8https://video.igem.org/videos/embed/ghK5VbBWnFhVarf3Etnrf68840312024-10-08T15:45:16.302ZYES2024 PresentationsNOhttps://video.igem.org/w/3rg4RJEFi5ygB5XjU9hN85https://video.igem.org/lazy-static/thumbnails/ad3b7a77-ab65-4b6b-8c1b-23b283807334.jpgJIASHU-Shanghai: Youth Magic，the Skin's Time Machine (2024) - Team Presentation [English]**Title:** Youth Magic，the Skin's Time Machine **Description:** The program aims to address skin aging in menopausal women due to a decline in estrogen. For menopausal women, estrogen is especially important in skin care, and common beauty and skin care products on the market do not solve this problem. Our team selected E. coli Nissle 1917 as the chassis microorganism and constructed three systems, including genistein production system, bacterial cellulose production system, and light-controlled induced suicide system. Genistein can supplement estrogen, bacterial cellulose is used for hydration, and the light-controlled suicide induced suicide system ensures biosecurity. Through special production and use methods, the products provide a safe and efficient skin care experience for middle-aged and elderly women.We are also actively promoting STEM education for women, helping them to achieve holistic growth from the inside out. [Wiki](https://2024.igem.wiki/jiashu-shanghai) | [Official Page](https://teams.igem.org/5481)https://static.igem.org/peertube/streaming-playlists/hls/13b92819-4ade-4947-932d-0eeaf5bf0d92/98c3f2b6-52dc-4410-adf2-28362a8771d3-master.m3u8https://video.igem.org/videos/embed/3rg4RJEFi5ygB5XjU9hN858480202024-10-08T15:52:12.067ZYES2024 PresentationsNOhttps://video.igem.org/w/i6unNkayWYkrrTHfy6zNjthttps://video.igem.org/lazy-static/thumbnails/fe854c97-b8be-4cdf-9e61-5641d6a8adb5.jpgZJU-China: Neovio Dye——A new type of dyeing implemented by light induction system (2024) - Team P...**Title:** Neovio Dye——A new type of dyeing implemented by light induction system **Description:** ZJU-China has designed a new and interesting microbial staining method——Neovio Dye. On the basis of synthesizing Violacein's highly efficient metabolic modification and addressable RNA scaffold, it uses light-induced DNA recombinase and light-sensitive transcription factors to realize memory pattern drawing, hoping to bring the color of synthetic biology to the fashion industry.This video introduces Neovio Dye from the aspects of background, project principle, experimental results, dry lab results and human practice work. Welcome to learn more about us! [Wiki](https://2024.igem.wiki/zju-china) | [Official Page](https://teams.igem.org/5319)https://static.igem.org/peertube/streaming-playlists/hls/8a6f9034-a6e3-47db-91ad-ad3da391d41f/b96c8a47-7cf8-43ba-b760-3bf2df38919e-master.m3u8https://video.igem.org/videos/embed/i6unNkayWYkrrTHfy6zNjt8930562024-10-08T15:56:20.266ZYES2024 PresentationsNOhttps://video.igem.org/w/6UEmZ4q8yaPPzzhrzv9exNhttps://video.igem.org/lazy-static/thumbnails/87abbd95-5c24-4d22-87f4-6e6d17af0884.jpgNanjing-BioX: EcoSweet: Biosynthesized Allose - Sweet & Sustainable (2024) - Team Presentation [E...**Title:** EcoSweet: Biosynthesized Allose - Sweet & Sustainable **Description:** Faced with the problem of diabetes, which is skyrocketing globally due to excessive intake of sucrose, we would like to use a natural sugar substitute, allose, as a healthier alternative to sucrose. However, the cost of natural extraction and production methods for allose remains high, and to address this challenge, our team developed an allose biosensor based on alsR transcriptional regulators. The sensor has been rigorously tested and demonstrated specificity and high efficiency to convert allose production into a real-time fluorescence response. Meanwhile, we have further optimised the sensor performance by using computational prediction and molecular docking techniques, combined with random mutagenesis, which lays a solid foundation for achieving low-cost and large-scale microbial synthesis of allose. [Wiki](https://2024.igem.wiki/nanjing-biox) | [Official Page](https://teams.igem.org/5206)https://static.igem.org/peertube/streaming-playlists/hls/2fd802b8-d033-4f83-926a-31af1268aaf8/e957c3a8-f809-4320-a68c-b3aa80b75582-master.m3u8https://video.igem.org/videos/embed/6UEmZ4q8yaPPzzhrzv9exN7740152024-10-09T20:08:22.415ZYES2024 PresentationsNOhttps://video.igem.org/w/m9mJ22qXymYw2uGZXEYmRHhttps://video.igem.org/lazy-static/thumbnails/f6ee9e33-39c5-406b-8c80-c687219e5dc3.jpgSZSAIS-Shenzhen: Smart Sweets (2024) - Team Presentation [English]**Title:** Smart Sweets **Description:** The global issue of obesity continues to rise, affecting numerous countries. In China, for instance, more than 20% of adults are overweight. Obesity contributes to various health problems, including hyperlipidemia, hypertension, and diabetes, posing significant risks to human health. One of the leading causes of obesity is excessive sugar consumption, yet many struggle to reduce their sugar intake. To address this, our team has proposed a practical solution aimed at lowering calorie consumption. This year, we have developed a synthesis method for producing low-calorie sugars by converting widely available glucose into tagatose, a healthier alternative. Through this approach, we hope to combat the obesity epidemic globally. [Wiki](https://2024.igem.wiki/szsais-shenzhen) | [Official Page](https://teams.igem.org/5453)https://static.igem.org/peertube/streaming-playlists/hls/a3217ec8-c9c3-4226-91ea-a14f22cb36d3/2c7a8164-a20b-4662-8d18-0f7d5ff483b6-master.m3u8https://video.igem.org/videos/embed/m9mJ22qXymYw2uGZXEYmRH7370302024-10-09T18:13:02.176ZYES2024 PresentationsNOhttps://video.igem.org/w/aTSCwU11byxvNXPyAUGR9mhttps://video.igem.org/lazy-static/thumbnails/91fc1358-4210-4978-a791-4c37f4b63c77.jpgSEHS: Illuminating the brain: Discovery of cyclic N-aminoluciferins (cyL) for br... (2024) - Team...**Title:** Illuminating the brain: Discovery of cyclic N-aminoluciferins (cyL) for brain tumor bioluminescence imaging **Description:** Brain tumors can cause neurological impairments and death, stressing the necessity for ongoing research and enhanced therapies. Bioluminescence imaging, a non-invasive imaging technique, is employed in tumor research, gene expression, drug screening, and other fields. However, substrates like D-luciferin and aminoluciferin have short red-light emission (tissue-penetrating), insufficient in vivo bioluminescence duration, and inadequate blood-brain barrier permeability, resulting in bioluminescence imaging for brain tumors challenging. This study develops cyclic N-aminoluciferins (cyL) as firefly luciferase substrates with improved bioluminescence via rational design and organic synthesis. Due to its red-shifted bioluminescent emission, prolonged bioluminescence duration and enhanced blood-brain barrier penetration, 7-cyL is a promising candidate for bioluminescence imaging of brain tumors after biological evaluations. In summary, our approach allows direct brain tumor progression imaging and fills a long-standing gap in real animal imaging. We believe that these cyL compounds will improve bioluminescence imaging and help us understand brain tumor growth and treatment. [Wiki](https://2024.igem.wiki/sehs) | [Official Page](https://teams.igem.org/5414)https://static.igem.org/peertube/streaming-playlists/hls/502061c9-56d3-43e7-9efc-5e2a4b5a2708/d651092a-c6e1-4be3-8378-cde8c1cfdf28-master.m3u8https://video.igem.org/videos/embed/aTSCwU11byxvNXPyAUGR9m8990182024-10-09T20:11:00.965ZYES2024 PresentationsNOhttps://video.igem.org/w/vcGYcVQXF2hn48tvkaAuP1https://video.igem.org/lazy-static/thumbnails/7b1dfee4-c993-4218-8aa1-d2b362118103.jpgCityU-HongKong: Bevatech – Spot the Fake. Safeguard the Cure. (2024) - Team Presentation [English]**Title:** Bevatech – Spot the Fake. Safeguard the Cure. **Description:** Drug counterfeiting has been a significant global threat in recent decades, accounting for over 6000 counterfeit cases in 2021. This issue poses a critical threat to cancer patients in vulnerable regions, including war regions and developing countries that do not have sufficient facilities for testing. In previous years, The U.S. The Food and Drug Administration identified more than 19 medical facilities distributing Bevacizumab, a vital cancer drug that explicitly targets Vascular Endothelial Growth Factor (VEGF). To tackle this problem, our team designed an aptamer-based lateral flow test strip that provides a rapid, affordable, and sensitive point-of-care device that can be distributed globally and operated without specialized expertise. We optimized a DNA aptamer sensor that sensitively binds to Bevacizumab active ingredients and immobilized it onto the LFA membrane. Through this innovation, potential improvement in patient treatment quality assurance can be achieved, ensuring access to genuine cancer treatment for all. [Wiki](https://2024.igem.wiki/cityu-hongkong) | [Official Page](https://teams.igem.org/5334)https://static.igem.org/peertube/streaming-playlists/hls/ec7b7360-8ba0-4df2-857a-fcb5b1660e16/31c0594a-a3f8-401d-bc24-1b7d27c41556-master.m3u8https://video.igem.org/videos/embed/vcGYcVQXF2hn48tvkaAuP182001372024-10-09T20:12:57.842ZYES2024 PresentationsNOhttps://video.igem.org/w/tuqHSn8yMYuxX4uNkTFHNThttps://video.igem.org/lazy-static/thumbnails/09081e42-573a-4009-a5eb-9c835cc61805.jpgToulouse-INSA-UPS: BioMoon: a microbial biostimulant for plant growth on the Moon (2024) - Team P...**Title:** BioMoon: a microbial biostimulant for plant growth on the Moon **Description:** We, the BioMoon team, have addressed one of the major issues for long-duration space travel: sustainable food supply. We have developed a biostimulant based on an engineered bacterium Pseudomonas fluorescens that uses in situ resources to support plant growth directly on lunar soil. As a substrate for growing bacteria, we chose creatinine, a molecule present in human urine. We identified genes to metabolize creatinine, creA and crnA, and created a new strain that was able to grow on creatinine as the sole carbon and nitrogen source. The new pathway was implemented in silico into a genome-wide model of P. fluorescens that helped us predict metabolic fluxes. Moreover, we demonstrated that our engineered strain survived on a lunar soil simulant and could promote growth of a model plant in the laboratory. Capitalizing on these results, we built an entrepreneurship strategy to commercialize our biostimulant for space and terrestrial agriculture. [Wiki](https://2024.igem.wiki/toulouse-insa-ups) | [Official Page](https://teams.igem.org/5108)https://static.igem.org/peertube/streaming-playlists/hls/de9ece05-8ddb-4708-bab7-30112765b10b/cbf2efb2-0aa9-4756-94e5-a307f7288151-master.m3u8https://video.igem.org/videos/embed/tuqHSn8yMYuxX4uNkTFHNT88701942024-10-09T20:21:44.967ZYES2024 PresentationsNOhttps://video.igem.org/w/9gs1bjMogjWfJDt312oFzHhttps://video.igem.org/lazy-static/thumbnails/78f21394-9ef0-4c89-afd2-6a4a5722da40.jpgGU-Frankfurt: "SOLAR" Save Our Lives And Reefs (2024) - Team Presentation [English]**Title:** "SOLAR" Save Our Lives And Reefs **Description:** UV radiation is the highest risk factor for skin cancer by causing DNA damage and genetic mutations. Sunscreens provide efficient protection against skin cancer and are commercially available in almost every drug store or supermarket. However, emerging concern arise over the impact of UV filters accumulation in marine ecosystems, especially contributing to destruction of coral reefs. Therefore, there is a pressing need to develop safe and sustainable formulations that offer a broad range of UV protection while posing minimal ecological risks to the environment. By locally producing Mycosporine-like amino acids (MAAs) in heterologous Escherichia coli host, SOLAR offers a sustainable and efficient alternative to state of the art sunscreens. By utilising protein engineering, our product additionally provides UVB protection, making it a promising sunscreen alternative for people all over the EU. Our cell-free lysate synthesis simplifies the use of MAA compounds by eliminating complex extraction steps, positioning SOLAR as the future of sustainable reef-safe sunscreen for mass industrial applications. [Wiki](https://2024.igem.wiki/gu-frankfurt) | [Official Page](https://teams.igem.org/5295)https://static.igem.org/peertube/streaming-playlists/hls/42f14a71-3f2b-4bb1-bbbe-17609420ad9f/8fd2a74f-e943-4c07-8907-d5b90d1104c7-master.m3u8https://video.igem.org/videos/embed/9gs1bjMogjWfJDt312oFzH89501152024-10-09T20:29:32.014ZYES2024 PresentationsNOhttps://video.igem.org/w/rVKRnj9eM1eZRkgf55zHWNhttps://video.igem.org/lazy-static/thumbnails/e5b6385d-54ac-46d2-88d7-1a9eef4998e6.jpgHainanU-China: GHK-Cu: HEP (Hair Expecto Patronum) (2024) - Team Presentation [English]**Title:** GHK-Cu: HEP (Hair Expecto Patronum) **Description:** At present, the problem of hair loss is becoming more and more serious, and the trend of younger age is serious, which seriously affects the physical and mental health of patients. Copper peptide (GHK-Cu) is a tripeptide ultra-short peptide, which has significant effects on hair follicle repair and hair loss treatment with less side effects, and is widely used in the beauty industry, and is a current research hotspot. This year, our team adopted series expression to efficiently express copper peptides in engineered bacteria, and adopted quorum sensing technology to build a controlled bacterial ecosystem, trying to improve its production efficiency. In addition, we use microemulsions coated with copper peptides to present the product. The application of this series of innovative technologies aims to effectively solve the problem of hair loss with minimal side effects and help people get rid of hair loss. [Wiki](https://2024.igem.wiki/hainanu-china) | [Official Page](https://teams.igem.org/5383)https://static.igem.org/peertube/streaming-playlists/hls/d1f5e919-c07d-4473-87b1-cbc96c6c3f16/a69ad224-54e7-466d-95cc-e24a3fd1ffd8-master.m3u8https://video.igem.org/videos/embed/rVKRnj9eM1eZRkgf55zHWN8990432024-10-09T20:31:57.523ZYES2024 PresentationsNOhttps://video.igem.org/w/tEk6brvEFqCgc8npppbVsShttps://video.igem.org/lazy-static/thumbnails/5b86298e-aa40-4a6f-8d8b-3ded1a5b335d.jpgECUST: Poros Vaccine (2024) - Team Presentation [English]**Title:** Poros Vaccine **Description:** Earth, supports an incredibly diverse array of life. However, the global population is surging, expected to surpass 10 billion by 2050. This growth poses significant challenges to food production and supply chains. While innovations like Mr. Yuan Longping’s hybrid rice have increased yields, land resources are finite, with only 29% of the Earth's surface being suitable for cultivation, much of it compromised by factors like desertification. Conversely, the oceans, covering 71% of the planet, present vast untapped potential, especially through marine organisms like saltwater fish, which are rich in essential nutrients. Flatfish, particularly turbot, are vital in aquaculture, with China being the largest producer globally. However, the rapid growth of aquaculture introduces threats from various pathogens, leading to substantial economic losses when diseases break out. Traditional methods for disease prevention, such as antibiotics or mass culling, are problematic due to issues like drug resistance and inhumanity. Thus, a more sustainable solution is needed, highlighting the importance of vaccines, which bolster fish immunity. Despite existing vaccines, challenges in administration and effectiveness persist, emphasizing the need for a convenient, efficient alternative. In response, our team has developed the Poros vaccine, which allows fish to autonomously synthesize antigens throughout their lifecycle after a single vaccination, providing ongoing immune protection against multiple pathogens. This innovative live attenuated vaccine uses a modified strain of Edwardsiella piscicida, targeting the bacteria responsible for turbot diseases while being safe for human health. We designed signaling pathways within the vaccine to express antigens in response to specific external signals, enabling optimized immune responses. Selected antigens, such as OmpK and AshA, have been integrated to ensure robust immunogenicity without interfe...https://static.igem.org/peertube/streaming-playlists/hls/e000c572-f1cf-4e7c-ac76-3070d0a10f2a/664eeecd-3698-437d-87fd-2ca5eb9678d1-master.m3u8https://video.igem.org/videos/embed/tEk6brvEFqCgc8npppbVsS8530262024-10-09T20:39:44.643ZYES2024 PresentationsNOhttps://video.igem.org/w/eNGzDVPRSZjQktNSdPWK52https://video.igem.org/lazy-static/thumbnails/d8d8a581-0d7f-44b3-b7d5-fdbcb9d07d1d.jpgHangzhou-MedX: LA&N: Yeast-Derived Human Lactoferrin and N-Acetylneuraminic Acid... (2024) - Team...**Title:** LA&N: Yeast-Derived Human Lactoferrin and N-Acetylneuraminic Acid as Supplements for Infants **Description:** In the face of economic pressures and epidemic challenges, China's breastfeeding rate is a concern. The high cost and limited nutritional value of formula milk have placed a financial burden on many families. This project aims to use Saccharomyces cerevisiae for the low-cost production of two important nutrients in the growth of infants and young children: lactoferrin and N-acetylneuraminic acid. We introduced the human lactoferrin synthesis gene and the high-yield Neu5Ac synthesis gene into Saccharomyces cerevisiae cells using the pESC-URA plasmid vector, respectively. Subsequently, the functions of the engineered cells were verified using a variety of methods, including kits and SDS-PAGE, and the production of the target product was finally confirmed. Our goal is to provide economical nutritional supplements that promote the health and well-being of infants and relieve the psychological stress of mothers who are unable to breastfeed themselves. [Wiki](https://2024.igem.wiki/hangzhou-medx) | [Official Page](https://teams.igem.org/5508)https://static.igem.org/peertube/streaming-playlists/hls/6fcc0643-1ada-425b-8887-9b6838118855/8b92892a-d1ba-4b2b-b5ff-d10ed2455d5e-master.m3u8https://video.igem.org/videos/embed/eNGzDVPRSZjQktNSdPWK52681082024-10-09T20:37:57.281ZYES2024 PresentationsNOhttps://video.igem.org/w/9zDhFrSw83EhPmZGmZMD9hhttps://video.igem.org/lazy-static/thumbnails/6c63b86b-ab94-4b9f-95e4-6f4811d55867.jpgUSAFA: Bio Si-ment (2024) - Team Presentation [English]**Title:** Bio Si-ment **Description:** Presentation video for the U.S. Air Force Academy 2024 iGEM Bio Si-ment team [Wiki](https://2024.igem.wiki/usafa) | [Official Page](https://teams.igem.org/5199)https://static.igem.org/peertube/streaming-playlists/hls/457ba20b-23e3-4b5e-9964-66f8cac0b4ac/831c70ed-b9cd-4c26-93d0-f8765200a821-master.m3u8https://video.igem.org/videos/embed/9zDhFrSw83EhPmZGmZMD9h7580272024-10-09T20:51:06.961ZYES2024 PresentationsNOhttps://video.igem.org/w/eSqHxvnYkWGmsaBYA7nAV3https://video.igem.org/lazy-static/thumbnails/ccfcca1b-2f57-41bd-8848-e668aeb3978f.jpgCSMU-NCHU-Taiwan: CSMU_NCHU_Taiwan Introduction (2024) - Team Presentation [English]**Title:** CSMU_NCHU_Taiwan Introduction **Description:** We are a group of university students from Taichung, Taiwan, and we want to share our team's project plans from the past year through this video. Our project is called Metabolic Engineering and Synthetic Biology Approaches for L-DOPA Production in Nicotiana benthamiana Using a BaMV-based Vector, and we have a mascot named Tulipa. So, let's get to know our team together with Tulipa! [Wiki](https://2024.igem.wiki/csmu-nchu-taiwan) | [Official Page](https://teams.igem.org/5355)https://static.igem.org/peertube/streaming-playlists/hls/70513917-b07e-4a70-a0fd-83b19e120834/d326b073-ace6-4946-808b-8fea8118c57d-master.m3u8https://video.igem.org/videos/embed/eSqHxvnYkWGmsaBYA7nAV37720242024-10-09T20:56:28.803ZYES2024 PresentationsNOhttps://video.igem.org/w/sAyZaLoEpo3SU3wDrpykMihttps://video.igem.org/lazy-static/thumbnails/a95899a2-0d60-4a62-9161-f574c31fb0ea.jpgYiYe-China: The Application of RNA Secondary Structure to Diagnose Gastric Cance... (2024) - Team...**Title:** The Application of RNA Secondary Structure to Diagnose Gastric Cancer in the Early Stage **Description:** Gastric cancer is one of the leading causes of cancer-related death worldwide. Ras‐GTPase‐activating protein SH3 domain binding protein1 (G3BP1) is the first RasGAP SH3 domain binding protein. G3BP1 has been reported to be upregulated in gastric cancer tissues and strongly associated with the survival rate of the patients suffering from gastric cancer. G3BP1 protein could directly regulate the mRNA decay through interacting with the highly structure in the 3’-untranslated region (3’UTR). Our project plans to create a sensor containing highly structured 3’UTR to monitor the change of G3BP1, which may provide a novel method to diagnosis gastric cancer at the earlier stages in the future. [Wiki](https://2024.igem.wiki/yiye-china) | [Official Page](https://teams.igem.org/5082)https://static.igem.org/peertube/streaming-playlists/hls/d76138b2-a4fa-4e43-aadb-e8032bd5363f/0f41adbb-0e1d-438c-8790-3d37b5aca9d6-master.m3u8https://video.igem.org/videos/embed/sAyZaLoEpo3SU3wDrpykMi9000112024-10-09T20:57:34.166ZYES2024 PresentationsNOhttps://video.igem.org/w/oKFfZWt1pGmnCUABFmP651https://video.igem.org/lazy-static/thumbnails/d8636cfe-2fc5-450b-aadb-d5811024f167.jpgTsinghua: MuScure: Journey to redefine IBD (2024) - Team Presentation [English]**Title:** MuScure: Journey to redefine IBD **Description:** A Scent-Based Solution for Treating Inflammatory Bowel Disease (IBD), leveraging muscone-triggered lactate release. In this presentation, we share the development journey of MuScure, highlighting our wet lab design, biosafety measures, dry lab work, and commitment to human practice and inclusivity. To ensure our project aligns with patient needs, we conducted numerous interviews to gain deeper insights into IBD, integrating valuable patient feedback into our design. Join us as we unveil MuScure and explore how it aims to transform the lives of those living with IBD. [Wiki](https://2024.igem.wiki/tsinghua) | [Official Page](https://teams.igem.org/5187)https://static.igem.org/peertube/streaming-playlists/hls/b8423a02-ab29-4f11-b3f1-8f5748d59054/6584dc24-ef5e-4963-a8d0-6ac5b5e6e1a3-master.m3u8https://video.igem.org/videos/embed/oKFfZWt1pGmnCUABFmP651888013112024-10-09T20:58:14.406ZYES2024 PresentationsNOhttps://video.igem.org/w/5s2kXp9KpMPXhEYBkZRMhLhttps://video.igem.org/lazy-static/thumbnails/3e30b991-a2c3-4156-8132-ed3fafc1a05b.jpgPLKNPL-HK: Biosynthesis of Liamocin in Saccharomyces cerevisiae through a multig... (2024) - Team...**Title:** Biosynthesis of Liamocin in Saccharomyces cerevisiae through a multigene pathway derived from Aureobasidium pullulans **Description:** Liamocins are novel extracellular polyol lipids produced autogenously by Aureobasidium pullulans, exhibiting promising Streptococcus-specific inhibiting activity. Secondarily, liamocins possess surface-active and possibly anti-cancer properties. Liamocins can also cyclize into massoia lactone, a key compound produced by the threatened Cryptocaria massoy tree. Past research on liamocins has centered on elucidating the metabolic interactions influencing their synthesis, as well as their structure and applications. As such, methods of liamocin production have not yet reached an industrial or commercial scale. Our project aims to reduce the costs and enhance the rate of liamocin production to a commercial scale, via engineering the fast-doubling and well-documented S. cerevisiae to express the endogenous four-gene liamocin synthesis pathway in A. pullulans EXF-150. [Wiki](https://2024.igem.wiki/plknpl-hk) | [Official Page](https://teams.igem.org/5051)https://static.igem.org/peertube/streaming-playlists/hls/2406b891-06de-4b33-b3f8-5a20a12548f8/503874cf-068d-41c9-a21b-7bde5c69a08a-master.m3u8https://video.igem.org/videos/embed/5s2kXp9KpMPXhEYBkZRMhL8990182024-10-09T20:57:05.843ZYES2024 PresentationsNOhttps://video.igem.org/w/qp8mnrvMzPD85sd2ZcNvZThttps://video.igem.org/lazy-static/thumbnails/b3a581ef-96f8-4fa5-8c90-10735308e427.jpgPisa-IT: PeroNoMore's journey against Plasmopara viticola (2024) - Team Presentation [English]**Title:** PeroNoMore's journey against Plasmopara viticola **Description:** Ciao ! We are PeroNoMore, the iGEM team from Pisa. In this video, we take you through our iGEM journey as we tackle Plasmopara viticola, commonly known as downy mildew—one of the most destructive pathogens affecting grapevines. Sit back, relax, and enjoy! [Wiki](https://2024.igem.wiki/pisa-it) | [Official Page](https://teams.igem.org/5405)https://static.igem.org/peertube/streaming-playlists/hls/c595f702-eae6-4c8e-81ef-607bf425d7f1/ded5778c-1241-400a-abac-2b5b1fc60ddd-master.m3u8https://video.igem.org/videos/embed/qp8mnrvMzPD85sd2ZcNvZT8990252024-10-09T21:05:03.290ZYES2024 PresentationsNOhttps://video.igem.org/w/sDrZsSa3eQNDHg8vRzLmCwhttps://video.igem.org/lazy-static/thumbnails/437eaea1-4937-406b-902b-0cd0e69a4ab9.jpgCity-of-London-UK: KN2OCKOUT - SAY NO TO N2O (2024) - Team Presentation [English]**Title:** KN2OCKOUT - SAY NO TO N2O **Description:** Although a lesser known greenhouse gas, nitrous oxide (N2O) is an active contributor to global warming. Being almost 300 times more potent than carbon dioxide, N2O is a silent enemy which catalyses climate change in secret, almost forgotten all together. In the UK, N2O plays an indispensable role in the NHS, especially in maternity wards, being used in the anaesthetic called 'Entonox', as it is an effective sedative that is not metabolised. However, this routine usage of Entonox lends itself to concerningly high N2O emissions in the hospital setting, which not only poses as an environmental threat, but also puts healthcare workers at risk due to the increased exposure. Although others have taken on the challenge of solving this problem in the past, the City-of-London-UK iGEM team has proposed a unique, improved and innovative solution which breaks down Entonox more cheaply, quietly and sustainably. By genetically modifying E.coli to express the enzyme nitrous oxide reductase (N2OR), the only existing enzyme able to break down N2O, and increasing the rate of copper ion uptake (a cofactor for the enzyme) by upregulating a protein called ComR, we can provide a simple and efficient solution that harnesses revolutionary genetic engineering at its core. [Wiki](https://2024.igem.wiki/city-of-london-uk) | [Official Page](https://teams.igem.org/5111)https://static.igem.org/peertube/streaming-playlists/hls/d7c8245b-1b1c-40c0-a617-728b3af29c66/b1261073-d069-49df-b49c-2cdf278dd838-master.m3u8https://video.igem.org/videos/embed/sDrZsSa3eQNDHg8vRzLmCw8940422024-10-09T20:59:43.452ZYES2024 PresentationsNOhttps://video.igem.org/w/6bmpy4BdoktoPGrSYCoHNWhttps://video.igem.org/lazy-static/thumbnails/7354b48b-dd60-4b7a-ac14-ed9dc2ea75dc.jpgLinkoping: IchthyoCare (2024) - Team Presentation [English]**Title:** IchthyoCare **Description:** LiU iGEM 2024 presents this year's project - IchthyoCare. [Wiki](https://2024.igem.wiki/linkoping) | [Official Page](https://teams.igem.org/5387)https://static.igem.org/peertube/streaming-playlists/hls/29efb4e9-fa80-4887-babb-827375b02316/aaf10f57-b5cf-446f-9480-6e3dd6e00ca0-master.m3u8https://video.igem.org/videos/embed/6bmpy4BdoktoPGrSYCoHNW9000232024-10-09T21:05:45.054ZYES2024 PresentationsNOhttps://video.igem.org/w/diRD4j5cYz55Qt9B5v7ah3https://video.igem.org/lazy-static/thumbnails/05fcf31c-8d0b-462a-b519-d93eae895470.jpgHUBU-4-CHN: Archie's adventure (2024) - Team Presentation [English]**Title:** Archie's adventure **Description:** I am Archie, the mascot of the HUBU-4-CHN team, entrusted with the mission of exploring the unknown. I have embarked on a fantastic journey through the internal environment, unlocking new secrets for disease treatment and bringing revolutionary changes to human health. In this microscopic world, I have made a group of brave friends. Together, we stand shoulder to shoulder to fight against those enemies that threaten health. Every battle is a test of wisdom and courage, and every victory brings us closer to our goal. On this journey, we have not only discovered new methods of disease treatment but, more importantly, we have injected new vitality and hope into the research of human gene therapy by designing and constructing a safer, more efficient, and economical gene editing delivery vehicle. Our discoveries may rewrite the future and bring light to those troubled by diseases. Archie's adventure is a story about courage, wisdom, and friendship, a legend about exploration and discovery. Let's look forward to how this journey will change the world. [Wiki](https://2024.igem.wiki/hubu-4-chn) | [Official Page](https://teams.igem.org/5382)https://static.igem.org/peertube/streaming-playlists/hls/63abe62a-0129-44db-8a18-ec783a5331e6/091234c2-5b49-4328-a5d9-fed42e031443-master.m3u8https://video.igem.org/videos/embed/diRD4j5cYz55Qt9B5v7ah38950182024-10-09T21:26:02.646ZYES2024 PresentationsNOhttps://video.igem.org/w/bBVNa8rRusbHrQBgmoF7S2https://video.igem.org/lazy-static/thumbnails/5b402043-e850-44d8-b196-68fdb73b3661.jpgFreiburg: Capture (2024) - Team Presentation [English]**Title:** Capture **Description:** Hey we are the iGEM Team Freiburg 2024 and this is our project CAPTURE. Our project combats the ESKAPE pathogen Pseudomonas aeruginosa through a novel approach involving carriers for Antimicrobial Peptides(AMPs). We strive to create a targeted therapeutic system to ensure the effective delivery of AMPs directly into the bacterial cells. To achieve this, we encapsulate a Pseudomonas specific plasmid encoding a potent AMP within specialized carriers, Liposomes or Outer Membrane Vesicles. P. aeruginosa produces the AMP itself, treating the infection from within. The carriers will be administered via an aerosol delivery system, attacking P. aeruginosa directly at the infection site. For more information, take a look at our wiki: https://2024.igem.wiki/freiburg/ [Wiki](https://2024.igem.wiki/freiburg) | [Official Page](https://teams.igem.org/5057)https://static.igem.org/peertube/streaming-playlists/hls/55ff9247-4619-458d-8e2a-ac466174e165/f0845924-1f7c-48e5-9938-7f56986d6bcc-master.m3u8https://video.igem.org/videos/embed/bBVNa8rRusbHrQBgmoF7S290003392024-10-09T21:24:01.139ZYES2024 PresentationsNOhttps://video.igem.org/w/4FpxVfpK7ASVWiuvzVagVshttps://video.igem.org/lazy-static/thumbnails/9cbf901d-035c-4aeb-ba1e-7b17e65cccfb.jpgTUDarmstadt: Micellaway- Bioremediation of polycyclic aromatic hydrocarbons (2024) - Team Present...**Title:** Micellaway- Bioremediation of polycyclic aromatic hydrocarbons **Description:** Oil pollution isn’t limited to massive ocean spills; oil pollution in freshwater habitats like rivers happens more frequently and often go unnoticed. These events, though smaller, pose a serious threat to local ecosystems and health. Traditional cleanup methods fail here, because oil in rivers have the tendency to disperse into microscopic droplets due to the riverflow. To address this issue, we propose a new strategy using synthetic biology. Our approach involves engineering Pseudomonas vancouverensis (DSM 8368) to break down toxic oil compounds called polycyclic aromatic hydrocarbons (PAHs) like naphthalene, phenanthrene, and pyrene. By integrating metabolic pathways, we enable this bacterium to target these harmful compounds effectively. To maximize its impact, we designed and modeled a specialized device to deploy our engineered bacteria in rivers, immobilizing them inside small, movable spheres to ensure effective pollutant degradation. Additionally, we’ve incorporated biocontainment strategies to prevent the escape of our engineered organisms into the environment. [Wiki](https://2024.igem.wiki/tudarmstadt) | [Official Page](https://teams.igem.org/5043)https://static.igem.org/peertube/streaming-playlists/hls/1dcbefb8-4033-45f0-94c2-72d1ce0fa6d0/2f0690a2-aa71-498c-ab45-b9fa5994ff07-master.m3u8https://video.igem.org/videos/embed/4FpxVfpK7ASVWiuvzVagVs4890312024-10-09T21:22:21.282ZYES2024 PresentationsNOhttps://video.igem.org/w/2VF8zvruHHixSeXcgPK8snhttps://video.igem.org/lazy-static/thumbnails/dee57f6b-e209-4398-92af-c75b089b85b3.jpgHannover: Hydro Guardian: A Biosensor for Detecting β-Lactam Antibiotic and Heav... (2024) - Team...**Title:** Hydro Guardian: A Biosensor for Detecting β-Lactam Antibiotic and Heavy Metal Residues **Description:** We developed a cellular sensor using genetically modified HEK cells to detect both heavy metals and antibiotic residues. The Hydro Guardian integrates the eukaryotic metal-binding transcription factor 1 (MTF1) pathway for heavy metals and the PASTA domain from prokaryotes, which is sensitive to beta-lactam antibiotics. The sensor was optimized through a sophisticated spectroscopic analysis pipeline and refined using a detailed differential equation-based model, enabling the determination of minimal residue detection limits. Throughout the design process, we collaborated with stakeholders from various fields and contributed over 20 new parts to the iGEM Registry. To validate the sensor concept, we successfully demonstrated the expression of distinct fluorophores, activated by specific promoter-regulator pathways for the MTF1 and PASTA domains, confirming the functionality of the system in detecting target contaminants. [Wiki](https://2024.igem.wiki/hannover) | [Official Page](https://teams.igem.org/5317)https://static.igem.org/peertube/streaming-playlists/hls/0f97ac70-65b8-4da7-8776-9c7926f9cc3d/28f1e070-b61f-4ca2-a3e8-d3cee9139391-master.m3u8https://video.igem.org/videos/embed/2VF8zvruHHixSeXcgPK8sn8500322024-10-09T21:34:54.567ZYES2024 PresentationsNOhttps://video.igem.org/w/aEpjWB448MXV9ri6bnLB2ihttps://video.igem.org/lazy-static/thumbnails/00386ab2-570e-4337-bbf2-10bf9eddd0d8.jpgInstitut-Le-Rosey: Aptagenix: full explanation (2024) - Team Presentation [English]**Title:** Aptagenix: full explanation **Description:** Our project’s aim is to create a kit for diagnosis of cancer especially non-small cell lung cancer (NSCLC) through the detection of EGFR mutation in ctDNA in the blood. We will use rolling circle amplification (RCA) in amplifying the sequence to avoid the use of expensive PCR machines. The ssDNA product will contain a sequence, which allows binding of lettuce probe, producing fluorescence to be detected and quantified. In this video, we present all aspects of our project, including its description, future, challenges, human practices, etc. [Wiki](https://2024.igem.wiki/institut-le-rosey) | [Official Page](https://teams.igem.org/5502)https://static.igem.org/peertube/streaming-playlists/hls/4e3ee2ff-a9f1-4b41-898c-affe0bebac67/4cf06866-5a54-48f2-a3d1-aaad2e6a5d23-master.m3u8https://video.igem.org/videos/embed/aEpjWB448MXV9ri6bnLB2i8750252024-10-09T21:36:32.323ZYES2024 PresentationsNOhttps://video.igem.org/w/uGu9gB1AzDte3cyKTacdJJhttps://video.igem.org/lazy-static/thumbnails/50c42105-5479-47c8-bfa8-ab770a8f5d3c.jpgLCG-China: Modular Bacterial Cellulose Modification Machine in Use and AI Safety... (2024) - Team...**Title:** Modular Bacterial Cellulose Modification Machine in Use and AI Safety Framework in Synthetic Biology **Description:** LCG-China 2024 enhanced the 2014 Imperial College bacterial cellulose modification system by resolving legacy issues and developing a modular decoupling platform to improve protein-cellulose interactions. Our system incorporates a bacterial cellulose scaffold (curlisfiber-spytag) with fusion proteins (spycatcher-fusion protein of interest), allowing for efficient binding of proteins that typically do not bind with cellulose. This modular design supports future upgrades of individual components, increasing the system's versatility for various applications. Utilizing this platform, we developed a biodegradable adhesive bandage functionalized with antimicrobial peptides, addressing limitations of traditional wound care products. Additionally, to ensure safe AI use in synthetic biology, we established an AI safety policy guideline and a proposal specifically for the iGEM community, providing a robust framework to mitigate risks in AI-driven bioengineering projects. [Wiki](https://2024.igem.wiki/lcg-china) | [Official Page](https://teams.igem.org/5461)https://static.igem.org/peertube/streaming-playlists/hls/e866fa0c-9284-4335-9ef8-076bc74bc346/89bd96df-d1ee-445f-9488-18f6b470c13d-master.m3u8https://video.igem.org/videos/embed/uGu9gB1AzDte3cyKTacdJJ8710162024-10-09T21:47:04.242ZYES2024 PresentationsNOhttps://video.igem.org/w/b9U29qvvShQWftPFCHNpv8https://video.igem.org/lazy-static/thumbnails/7fe37535-7c7f-428c-96d4-5b54cb143925.jpgChalmers-Gothenburg: Antimicrobial Resistance Reduction using Engineered Silenci... (2024) - Team...**Title:** Antimicrobial Resistance Reduction using Engineered Silencing Technology (ARREST) **Description:** In recent years, there has been a rapid emergence of antimicrobial resistance (AMR) at a global scale. Therefore, it is of great importance to develop new strategies to combat infections caused by antimicrobial resistant bacteria. The aim of this project is to develop a detection system utilizing toehold switches, and to establish an RNA-based gene silencing system. The ambition was to create and examine the efficacy of four different RNA-based silencing systems: sRNA, hammerhead RNA, CRISPR/Cas9, and CRISPR/Cas13a. Our results demonstrate that the sRNA system successfully represses the expression of ErmC and Tet(A), restoring the susceptibility of these bacteria to antibiotic treatment. Additionally, we explored a novel approach of transforming plasmid DNA using graphene oxide. [Wiki](https://2024.igem.wiki/chalmers-gothenburg) | [Official Page](https://teams.igem.org/5176)https://static.igem.org/peertube/streaming-playlists/hls/52396523-1a39-44f6-9ecb-faf034264a55/0a3087be-9947-4dda-8e8b-d265fd70550d-master.m3u8https://video.igem.org/videos/embed/b9U29qvvShQWftPFCHNpv89000412024-10-09T21:44:03.291ZYES2024 PresentationsNOhttps://video.igem.org/w/8MxutBgE8DerGbJQpbyNMMhttps://video.igem.org/lazy-static/thumbnails/1c0102ec-46c3-4ad7-ab79-6537378419a4.jpgBOKU-Vienna: Byebuprofen (2024) - Team Presentation [English]**Title:** Byebuprofen **Description:** The IGEM Vienna team of 2024 is happy to present their project Byebuprofen. We aspire to find an innovative solution to reduce the amount of pharmaceutical pollutants such as ibuprofen and diclofenac in municipal wastewater using immobilised laccase. To get a more detailed overview of our work, please check out our project website under the following link. https://2024.igem.wiki/boku-vienna/index.html [Wiki](https://2024.igem.wiki/boku-vienna) | [Official Page](https://teams.igem.org/5329)https://static.igem.org/peertube/streaming-playlists/hls/3f0bd8e6-7d1b-4754-9565-3dce3d177ad7/9f2596b2-c7aa-4df5-9fad-9d11020b6cc5-master.m3u8https://video.igem.org/videos/embed/8MxutBgE8DerGbJQpbyNMM6070192024-10-09T22:03:41.918ZYES2024 PresentationsNOhttps://video.igem.org/w/pTtgJRXvKqM1tkSPrxp4XEhttps://video.igem.org/lazy-static/thumbnails/8d2401a9-cc9b-473c-a87e-514370858c64.jpgThessaly: Thaelia: Guardian of the Olive Groves (2024) - Team Presentation [English]**Title:** Thaelia: Guardian of the Olive Groves **Description:** Olive trees hold deep cultural and economic importance in Greece, accounting for 79% of the country's tree crops. In our region, Thessaly, they are crucial to the stability of farmers' livelihoods. However, olive trees face a significant threat from Verticillium dahliae, a fungal pathogen that causes severe yield losses and tree mortality, especially in the Mediterranean. The lack of effective treatments has resulted in substantial economic losses, posing challenges to farmers' way of life and threatening the environment. With this in mind, our team developed THAELIA, a modular bacterial system that produces dsRNA to precisely target and silence essential fungal genes. By disrupting the growth and virulence of V. dahliae, THAELIA offers a sustainable new approach to fungal control. This approach protects olive trees during critical periods, ensuring the safety of biodiversity, human health, and the environment. [Wiki](https://2024.igem.wiki/thessaly) | [Official Page](https://teams.igem.org/5299)https://static.igem.org/peertube/streaming-playlists/hls/c171ed92-f51e-4c23-a500-a82910d82af0/f151447e-59cf-4904-8c22-ffedb60fb46c-master.m3u8https://video.igem.org/videos/embed/pTtgJRXvKqM1tkSPrxp4XE9000632024-10-09T22:05:38.245ZYES2024 PresentationsNOhttps://video.igem.org/w/3aeqLfF4raCYXQxodpkc9Xhttps://video.igem.org/lazy-static/thumbnails/c90b797f-fbb5-4831-8def-7c7bcbd50371.jpgVIT-V: Iravi (2024) - Team Presentation [English]**Title:** Iravi **Description:** The project tackles the public health challenge posed by high UV Index levels in Vellore, Tamil Nadu, which contribute to around 300,000 annual cases of non-melanoma skin cancer. While traditional sunscreens effectively block UV radiation, they often contain harmful chemicals that can disrupt hormones and damage the environment. This project proposes engineering Escherichia coli to overexpress genes in the Xanthophyll pathway, enabling the production of carotenoids like zeaxanthin and violaxanthin. These natural pigments offer antioxidant properties and can be integrated into skincare products for broad-spectrum UV protection. By employing recombinant DNA technology, this project aims to provide eco-friendly alternatives to chemical synthesis, addressing both skin health and environmental sustainability. The incorporation of these carotenoids into cosmetics aligns with the rising demand for safe, plant-based beauty solutions, ultimately contributing to a healthier market in India while mitigating skin cancer risks associated with UV exposure. [Wiki](https://2024.igem.wiki/vit-v) | [Official Page](https://teams.igem.org/5467)https://static.igem.org/peertube/streaming-playlists/hls/117c3ef3-58aa-4d08-8c2c-01a58803787b/9efcd441-448f-4124-9676-e7ac12e76caf-master.m3u8https://video.igem.org/videos/embed/3aeqLfF4raCYXQxodpkc9X8990332024-10-09T22:27:36.081ZYES2024 PresentationsNOhttps://video.igem.org/w/ovRo2y3FQLcX4nVgjqy7gZhttps://video.igem.org/lazy-static/thumbnails/99f93d79-8986-48bb-bb49-1db316cdeba2.jpgBostonU: NOVA, microbial SOILutions for precision agriculture (2024) - Team Presentation [English]**Title:** NOVA, microbial SOILutions for precision agriculture **Description:** Agrinova introduces the NOVA device, which integrates innovative fluorescent E. coli biosensors with portable hardware: microfluidics, mechanics, and high-sensitivity optics, alongside modeling, software, and user-friendly interfaces to streamline soil and crop testing, making it accurate and, most importantly, cost-effective. Our solution optimizes the soil and plant testing process, connecting farmers, laboratories, and data analysis seamlessly. [Wiki](https://2024.igem.wiki/bostonu) | [Official Page](https://teams.igem.org/5359)https://static.igem.org/peertube/streaming-playlists/hls/b6540d1c-73ff-4f17-813c-5b5b1cf83777/bf2c4007-235a-434c-900b-66289684e3b7-master.m3u8https://video.igem.org/videos/embed/ovRo2y3FQLcX4nVgjqy7gZ8950442024-10-09T22:11:44.093ZYES2024 PresentationsNOhttps://video.igem.org/w/shfQtvyej96nEhJ7wexQ2chttps://video.igem.org/lazy-static/thumbnails/c7480614-073f-459a-a264-6ae30cd41236.jpgWLSA-ShanghaiAcademy: The Power of Nature: Pioneering a New Approach to Diabetes... (2024) - Team...**Title:** The Power of Nature: Pioneering a New Approach to Diabetes Treatment with Isoorientin **Description:** Our project provides an alternative cost-effective biochemical means of synthesizing isoorientin, a chemical proven effective in postprandial hypoglycemic effect and lowering the risk of complications. Through prokaryotic expression of Gt6CGT carried in genetically modified plasmid in Rosetta bacteria, isoorientin can be synthesized from luteolin and UDP-glucose. We hope this can lay the foundation of future mass production of isoorientin and that it'll become a crucial element in antidiabetic drugs in the future. [Wiki](https://2024.igem.wiki/wlsa-shanghaiacademy) | [Official Page](https://teams.igem.org/5501)https://static.igem.org/peertube/streaming-playlists/hls/d4d2a5f9-dffd-4958-8dee-a1e516b71aed/c1850bbb-39c4-4d61-b854-d8d08aa79ffb-master.m3u8https://video.igem.org/videos/embed/shfQtvyej96nEhJ7wexQ2c9000122024-10-09T22:16:22.018ZYES2024 PresentationsNOhttps://video.igem.org/w/v9NGwiSpUiMmA94dk2mMG3https://video.igem.org/lazy-static/thumbnails/44947b00-9e69-49ed-af63-17a9447b8488.jpgNNHS: Building an evolutionary system based on mutations and screening to make a... (2024) - Team...**Title:** Building an evolutionary system based on mutations and screening to make animals genetically better！ **Description:** [Background] Gene mutations enhance biodiversity and agricultural benefits, but unpredictable mutagenesis methods pose risks, preventing their use in animals or humans. There are few methods available to introduce random mutations in specific genomic DNA regions without impacting other areas. [Design] We hypothesize that fusing Cytosine Base Editor (CBE) with blue-light-sensitive elements (p-Mag/n-Mag) and split T7 RNA polymerase (RNAP) could create a blue-light-controlled, DNA region-specific semi-random mutagenesis system. [Results] We used GFP as a real-time reporter and developed a fluorescent-based high-throughput screening workflow to select positive mutations. We applied the CBE-Mag-RNAP system to the NADPH, spermidine synthesis, and nicotinate degradation pathways in Escherichia coli. GFP-negative and selection-survived colonies, followed by next-generation sequencing, identified "gain of function" mutations. These enhanced Caenorhabditis elegans longevity through NADPH and spermidine pathways, while mutations in the nicotinate pathway restored lifespan in a high-nicotinate environment. [Conclusion] We established the CBE-Mag-RNAP mutagenesis system and a functional mutation library. [Wiki](https://2024.igem.wiki/nnhs) | [Official Page](https://teams.igem.org/5191)https://static.igem.org/peertube/streaming-playlists/hls/ec13c018-889d-413d-bc88-ab2e1fa5b9f6/ca30c482-a83c-4566-9d10-0600079385ce-master.m3u8https://video.igem.org/videos/embed/v9NGwiSpUiMmA94dk2mMG38990122024-10-09T22:20:07.450ZYES2024 PresentationsNOhttps://video.igem.org/w/gBHmvSn1TmNfKzZU7p2Enrhttps://video.igem.org/lazy-static/thumbnails/65ac2cbd-9cc0-4850-8733-12ee53403ea3.jpgNPU-CHINA: Ligninolytic Enzymes Plus Nanozymes: A Sharp Weapon for Lignocellulos... (2024) - Team...**Title:** Ligninolytic Enzymes Plus Nanozymes: A Sharp Weapon for Lignocellulose Degradation **Description:** Modern global warming has posed serious threat to climate and related life on earth. The greenhouse gas emissions caused by fossil fuels are the main culprit of global warming. It is of great urgent to develop renewable and green energy to solve this issue. Lignocellulose biomass is promising precusor for developing renewable energy to cope with greenhouse gas emissions. However, the current lignocellulose degradation methods are limited by low efficiency and are environmentally unfriendly and energy consuming. What can be done with synthetic biology? In this project, we engineered the tgenes of cytochrome C mature protein (Ccm) operon and transformed into P. putida, creating a cellular factory that produce abundant ligninolytic enzymes, which simutaneously produce manganese oxide acting as ligninolytic nanozyme. Finally, the enzymes plus nanozyme sucessfully realize lignin degradation with high efficiency. [Wiki](https://2024.igem.wiki/npu-china) | [Official Page](https://teams.igem.org/5204)https://static.igem.org/peertube/streaming-playlists/hls/7e7598d3-7a6d-4742-9c15-e65d2781830b/ea5283e7-2720-43dc-82af-a3a3deb5ff32-master.m3u8https://video.igem.org/videos/embed/gBHmvSn1TmNfKzZU7p2Enr8690152024-10-09T21:51:38.724ZYES2024 PresentationsNOhttps://video.igem.org/w/huJnjSMieZ2vmbrfCC77J4https://video.igem.org/lazy-static/thumbnails/368b2970-f822-4a9e-a118-82b5748ca09a.jpgHW-ShanghaiUnited: CelluGuard: Desert Tree Survival Enhancer (2024) - Team Presentation [English]**Title:** CelluGuard: Desert Tree Survival Enhancer **Description:** The area of global desertification is expanding at a rate of 23 football fields per minute, posing a significant threat to the availability of land. Over the years, China has actively fulfilled its commitments under the United Nations Convention to Combat Desertification and has made notable progress. However, the global rate of desertification remains alarming, severely threatening ecological security and sustainable development. As a group of high school students committed to a responsible future, we have engineered Komagataeibacter xylinus to produce bacterial cellulose (BC) more efficiently. BC possesses exceptional water-retention properties, is environmentally friendly, and does not hinder the growth and development of tree roots, making it an ideal candidate as a water-retaining matrix material for afforestation in deserts. By enriching BC around the roots of tree, we aim to enhance the drought tolerance and survival rate of newly transplanted trees, thereby contributing to the mitigation of land desertification. [Wiki](https://2024.igem.wiki/hw-shanghaiunited) | [Official Page](https://teams.igem.org/5507)https://static.igem.org/peertube/streaming-playlists/hls/85952775-15da-4065-94ee-ad7f9d7dd20f/df1cae44-a8e3-4011-9237-48bc5861907c-master.m3u8https://video.igem.org/videos/embed/huJnjSMieZ2vmbrfCC77J47560122024-10-09T22:07:45.932ZYES2024 PresentationsNOhttps://video.igem.org/w/fqBf3xo1JUemDWEPEisrmJhttps://video.igem.org/lazy-static/thumbnails/c4b2ed6b-6294-4eaf-aa91-55389dd6e6d7.jpgSydney-Australia: REBolutionising Therapeutic Delivery Systems (2024) - Team Presentation [English]**Title:** REBolutionising Therapeutic Delivery Systems **Description:** Drug delivery is severely hampered by inefficiencies due to lack of endosomal escape. With the help of proteins called R bodies, we're engineering a novel drug delivery system that will REBolutionise therapeutics! Watch this video for an explanation of the problems our project aims to solve, the advantages of our solution, how we experimentally validated our system and how we plan to expand our project in the future. [Wiki](https://2024.igem.wiki/sydney-australia) | [Official Page](https://teams.igem.org/5121)https://static.igem.org/peertube/streaming-playlists/hls/74cf82ad-4f9b-47f0-a792-7bbae8356dd6/e84f0543-850f-4b3b-8494-066f76ee6230-master.m3u8https://video.igem.org/videos/embed/fqBf3xo1JUemDWEPEisrmJ89802952024-10-09T21:51:58.560ZYES2024 PresentationsNOhttps://video.igem.org/w/iJVcqUH7jjgofFvxDAgbuZhttps://video.igem.org/lazy-static/thumbnails/8f6ac6fd-8afc-47b8-8813-e4db831f2e6b.jpgMadrid-UCM: RePET: Transforming Plastic Waste into Sustainable Solutions (2024) - Team Presentati...**Title:** RePET: Transforming Plastic Waste into Sustainable Solutions **Description:** Welcome to RePET, an innovative project addressing the global plastic pollution crisis by converting PET waste into biodegradable bioplastics through synthetic biology. Our team of young scientists harnesses advanced enzymatic degradation and bioplastic synthesis to tackle two major environmental challenges: managing plastic waste and creating a sustainable alternative to traditional plastics. This video delves into the steps of PET degradation, PHA and vanillin synthesis, and material characterization, all contributing to a greener future through circular bioeconomy solutions. [Wiki](https://2024.igem.wiki/madrid-ucm) | [Official Page](https://teams.igem.org/5435)https://static.igem.org/peertube/streaming-playlists/hls/8fa96121-3052-4779-bd71-3cc5b3a9e3d1/7126a557-3799-4250-a10b-ca13681c22b3-master.m3u8https://video.igem.org/videos/embed/iJVcqUH7jjgofFvxDAgbuZ9000432024-10-09T21:30:28.408ZYES2024 PresentationsNOhttps://video.igem.org/w/nbWb9oiVGv6h83Hx3d4wrhhttps://video.igem.org/lazy-static/thumbnails/c7ae9c21-be5a-4dc7-b50d-91d380dedaad.jpgHS-Beta: MARINE- Microplastic cell degradation factory based on phage display te... (2024) - Team...**Title:** MARINE- Microplastic cell degradation factory based on phage display technology **Description:** The increasing prevalence of plastic pollution, particularly marine litter, poses a significant environmental challenge. As highlighted, an estimated 5.25 trillion plastic particles, weighing over 268,000 tons, are estimated to be present in the world's oceans. Microplastics, which are particularly problematic due to their small size and difficulty to degrade, can induce a range of toxic effects, including oxidative stress and metabolic disorders in marine organisms. The innovative approach of employing genetically engineered E. coli BL21 (DE3) expressing surface-displayed PETase and TfCa encapsulated within the BASH device represents a promising strategy to tackle the growing issue of microplastic pollution in marine environments. By combining advanced genetic engineering techniques with a robust encapsulation system, this project has the potential to enable practical and sustainable solutions for plastic waste degradation. The proposed framework aims to provide an effective biological method for degrading harmful microplastics. [Wiki](https://2024.igem.wiki/hs-beta) | [Official Page](https://teams.igem.org/5282)https://static.igem.org/peertube/streaming-playlists/hls/ab96bc6c-97c0-4c13-a5e7-dee6ccd726aa/0616e01d-97c2-4f2e-be0d-dfd9e28726d9-master.m3u8https://video.igem.org/videos/embed/nbWb9oiVGv6h83Hx3d4wrh7870272024-10-09T21:32:00.728ZYES2024 PresentationsNOhttps://video.igem.org/w/j98fG8mFysCTcBSc4aoBSJhttps://video.igem.org/lazy-static/thumbnails/a38abcbf-17a7-43bd-80a7-6d4f25e75996.jpgSustech-Med: The treatment of Pseudomonas aeruginosa biofilm based on CBASS syst... (2024) - Team...**Title:** The treatment of Pseudomonas aeruginosa biofilm based on CBASS system engineering **Description:** This presentation video by Sustech-Med includes these aspects: Introduction, Project Goals, Methodology Overview, Results, Human Practices, Safety Considerations, Contributions and Attributions. All the contributors are attributed at the end of the video. We have obtained informed consent of everyone appearing in our video. The video adheres to iGEM’s values and Rules of Conduct. This video will give you a better idea of what we do throughout the project beyond just looking at our wiki page. We hope you enjoy watching it! [Wiki](https://2024.igem.wiki/sustech-med) | [Official Page](https://teams.igem.org/5239)https://static.igem.org/peertube/streaming-playlists/hls/92e6ea82-3776-4caa-8791-3a28013cec0a/8799c9f4-278b-488d-a677-916d885c9d4d-master.m3u8https://video.igem.org/videos/embed/j98fG8mFysCTcBSc4aoBSJ8990172024-10-09T22:08:11.534ZYES2024 PresentationsNOhttps://video.igem.org/w/gUrPE32xSnLQW8sVcP2hnnhttps://video.igem.org/lazy-static/thumbnails/2f2e56ca-779d-47eb-b154-31467bbadc57.jpgHKUST: DHA Express – DHA Production from Oleaginous Yeast (2024) - Team Presentation [English]**Title:** DHA Express – DHA Production from Oleaginous Yeast **Description:** The HKUST iGEM Team 2024 DHA Express presents an innovative solution to combat global DHA deficiency. Using synthetic biology, we engineer yeast to efficiently produce DHA, a vital nutrient for brain, eye, and heart health. Traditional DHA sources face sustainability challenges, creating a market gap. By integrating the PUFA synthase gene cluster into yeast, our innovative method addresses deficiencies and sets a precedent for producing other valuable compounds, promoting global health and sustainability. [Wiki](https://2024.igem.wiki/hkust) | [Official Page](https://teams.igem.org/5159)https://static.igem.org/peertube/streaming-playlists/hls/80cbab49-ff04-44bc-87a3-56077f9fb44f/b19c24ce-b88c-4dac-b25d-8aedb35ca6ed-master.m3u8https://video.igem.org/videos/embed/gUrPE32xSnLQW8sVcP2hnn8420362024-10-09T22:21:51.846ZYES2024 PresentationsNOhttps://video.igem.org/w/u3qXXDwxaJeq5E67bGbLd7https://video.igem.org/lazy-static/thumbnails/a097b9cd-cfdf-4639-a0a2-67c10e227b98.jpgLZU-MEDICINE-CHINA: A Transformative Strategy For Type2 Diabetes (2024) - Team Presentation [Engl...**Title:** A Transformative Strategy For Type2 Diabetes **Description:** With the improvement of global living standards, diabetes has gradually risen as one of the major threats to human health. According to its pathogenesis, diabetes can be divided into type 1 diabetes mellitus (T1DM) and type 2 diabetes mellitus (T2DM). The former is mainly due to autoimmune factors leading to the destruction of pancreatic islet β cells, resulting in insulin deficiency; The latter, on the other hand, stems from insulin resistance in the body, leading to a cascade of disorders in glucose and lipid metabolism. According to the World Health Organization (WHO), more than 95% of people with diabetes exhibit symptoms of T2DM, including children. In addition, the incidence of T2DM is increasing every year in various regions of the world. Therefore, it has become an urgent task to find more promising ways to deal with the effects of T2DM. [Wiki](https://2024.igem.wiki/lzu-medicine-china) | [Official Page](https://teams.igem.org/5161)https://static.igem.org/peertube/streaming-playlists/hls/e316c150-8bfe-4af7-a255-b76755789d3e/8d73b64b-a520-4821-a00b-58236e56c684-master.m3u8https://video.igem.org/videos/embed/u3qXXDwxaJeq5E67bGbLd77680252024-10-09T21:56:53.927ZYES2024 PresentationsNOhttps://video.igem.org/w/6fhqSgex1oJhepGBFZqGwohttps://video.igem.org/lazy-static/thumbnails/5285c1bc-d207-461d-8a4c-7c9df70b0dc0.jpgMSP-Maastricht: Natronaut: Turning the Tide! (2024) - Team Presentation [English]**Title:** Natronaut: Turning the Tide! **Description:** MSP-Maastricht is addressing coastal eutrophication, a local and global issue. Excessive fertiliser run-off from agriculture, a key economic sector of the Netherlands’ economy, has polluted waterways, spreading into marine ecosystems. This leads to ocean acidification, anoxia, and harmful algal blooms, which intensify climate change and disrupt biodiversity. Natronaut focuses on engineering the marine bacterium Vibrio natriegens to mitigate nitrate pollution in coastal waters. By harnessing its rapid growth and metabolic capacity, we aim to assimilate excess nitrates and convert them into single-cell proteins (SCPs), which can serve as sustainable livestock feed. This innovation reduces the need for conventional feed crops and fertilisers, promoting resource efficiency and circularity. Our project addresses the environmental challenge of eutrophication by not only reducing eutrophication but also working to prevent its recurrence. Ultimately, we aim to convert agricultural waste into valuable biomass, turning the tide on nitrate pollution. [Wiki](https://2024.igem.wiki/msp-maastricht) | [Official Page](https://teams.igem.org/5306)https://static.igem.org/peertube/streaming-playlists/hls/2a7c3b0b-b31c-4518-b08b-a14447f933f2/a1684df5-6387-4b36-9f9b-389274b0c6f2-master.m3u8https://video.igem.org/videos/embed/6fhqSgex1oJhepGBFZqGwo8580422024-10-09T22:33:16.247ZYES2024 PresentationsNOhttps://video.igem.org/w/5stu2KKKm9xhNpMmoh9VH3https://video.igem.org/lazy-static/thumbnails/e9af27a7-e927-4ef9-bee8-192399351b2c.jpgStony-Brook: Micronaut: A Biosensor for Non-Hodgkin's B-cell Lymphoma (2024) - Team Presentation ...**Title:** Micronaut: A Biosensor for Non-Hodgkin's B-cell Lymphoma **Description:** This presentation video discusses important details about Micronaut. Our project seeks to create an E. coli-based gene circuit for implementation in a cell-free system to detect a microRNA associated with Non-Hodgkin's B-cell Lymphoma, all to detect the disease earlier than existing methods. [Wiki](https://2024.igem.wiki/stony-brook) | [Official Page](https://teams.igem.org/5090)https://static.igem.org/peertube/streaming-playlists/hls/2416d46f-f199-40b4-b9d1-4c807919b040/a7958984-e29c-4c32-9711-44ae71719455-master.m3u8https://video.igem.org/videos/embed/5stu2KKKm9xhNpMmoh9VH38950352024-10-09T22:28:08.799ZYES2024 PresentationsNOhttps://video.igem.org/w/mBjNrQibhjPHJnq3Kfd3MGhttps://video.igem.org/lazy-static/thumbnails/af623e0a-52b9-4780-b28f-2fa59eb8e23c.jpgNanjing-China: Shivacosmic Greens - Self-sustaining, Circular Ecosystem Solution... (2024) - Team...**Title:** Shivacosmic Greens - Self-sustaining, Circular Ecosystem Solution for Space Exploration **Description:** With the rapid advancement of space technology, deep space exploration missions to other planets and regions within our solar system are gradually becoming a reality. During such long-distance space travel, a sustainable life support system is indispensable, especially for crop cultivation, which requires water, energy, and inorganic fertilizers. Addressing the challenges of material recycling and efficient energy utilization within this system is of paramount importance. Our project, "Shivacosmic Greens," has established a human-plant-microbe symbiotic system that achieves water purification, phosphorus recycling, and efficient energy utilization. We employ engineered Shewanella to treat human waste, enrich phosphorus, and decompose lactic acid while generating electricity. Subsequently, the phosphorus-enriched bacteria serve as fertilizer, and the dephosphorized wastewater can undergo further treatment. "Shivacosmic Greens" offers a novel approach to the next generation of space life support systems. [Wiki](https://2024.igem.wiki/nanjing-china) | [Official Page](https://teams.igem.org/5034)https://static.igem.org/peertube/streaming-playlists/hls/a6e5643c-35c4-45b0-9424-be880a1c94c2/0f5f4004-6437-42ff-aed7-2697f420488b-master.m3u8https://video.igem.org/videos/embed/mBjNrQibhjPHJnq3Kfd3MG9000742024-10-09T23:43:04.977ZYES2024 PresentationsNOhttps://video.igem.org/w/616rSN1fj4nCuDvev2w7NZhttps://video.igem.org/lazy-static/thumbnails/aa5ccc7a-b034-49ee-bd0b-93cef211f5ea.jpgBGI-MammothEdu-East: Scentinel: Fragrance for Empowerment (2024) - Team Presentation [English]**Title:** Scentinel: Fragrance for Empowerment **Description:** We are a group of 17 high school students passionate about biology, and this year, we formed the iGEM team BGI-MammothEdu-East. Our project, Scentinel: Fragrance for Empowerment, leverages synthetic biology to empower visually impaired women by helping them manage their menstrual cycles using bioengineered fragrance compounds. We aim to develop a material that, when integrated into sanitary pads and laundry detergents, releases specific scents when in contact with menstrual blood or secretions. These scent signals will allow visually impaired women to autonomously track their menstrual cycle, ensuring dignity and confidence in their day-to-day lives. Over the course of our eight-month project journey, we’ve gained a deep understanding of the needs of visually impaired women through comprehensive human practices activities. By engaging with this often-overlooked group, we learned about their challenges, heard their concerns, and tailored our solution accordingly. Our project also brought blind participants into the lab to experience the power of synthetic biology firsthand, fostering greater awareness of science within this community. [Wiki](https://2024.igem.wiki/bgi-mammothedu-east) | [Official Page](https://teams.igem.org/5217)https://static.igem.org/peertube/streaming-playlists/hls/28810cb2-84d6-42b1-a6a7-1e4215e2911d/2cacca58-703c-4772-b77a-18c6fc2358d5-master.m3u8https://video.igem.org/videos/embed/616rSN1fj4nCuDvev2w7NZ8135912024-10-09T22:34:04.005ZYES2024 PresentationsNOhttps://video.igem.org/w/w8h2ip7gtNk5ENKRSATC5qhttps://video.igem.org/lazy-static/thumbnails/4494990e-6bb4-4422-baa5-e388b7ba3aec.jpgUSTC: Engineering E. coli Nissle 1917 to inhibit solid tumor proliferation by co... (2024) - Team...**Title:** Engineering E. coli Nissle 1917 to inhibit solid tumor proliferation by competing VEGF **Description:** We plan to display VEGF competitive binding receptors on the EcN surface. When EcN gets inside TME, it will bind VEGF reducing its concentration, thereby effectively inhibiting angiogenesis in tumor areas and ultimately suppressing tumor proliferation.At the same time, we also added the design of hypoxia promoter, masking peptide and suicide switch to ensure its targeting and safety as a bacterial therapy. [Wiki](https://2024.igem.wiki/ustc) | [Official Page](https://teams.igem.org/5302)https://static.igem.org/peertube/streaming-playlists/hls/f3f63d87-c181-4fe4-a9d6-4e2b0c7b2d28/bd16060e-c680-4391-9302-9dff7496eff8-master.m3u8https://video.igem.org/videos/embed/w8h2ip7gtNk5ENKRSATC5q8570282024-10-09T22:44:04.562ZYES2024 PresentationsNOhttps://video.igem.org/w/tm2gR5H3kdPNVxnnDNx8c1https://video.igem.org/lazy-static/thumbnails/00ce8c8c-e2c6-443e-b4c1-f5ce6d7f9f9b.jpgUToronto: Plasmid.AI: An intelligent platform to write new life (2024) - Team Presentation [English]**Title:** Plasmid.AI: An intelligent platform to write new life **Description:** This year at iGEM Toronto, we are developing Plasmid.AI – a platform that uses generative AI to create new, functional DNA sequences. Our ultimate goal is to write entirely new genomes to create novel organisms that have fine-tuned phenotypes. To make headway towards this challenging task, we are starting with the simplest proof of concept – the generation and validation of new plasmid components. To do this, our dry lab team employs sequence-based machine learning approaches to generate novel plasmid sequences. Key plasmid components, such as the origin of replication, are generated and validated in silico. The wet lab team then assesses the viability of these components in vitro – the results of these assays refining dry lab’s next iteration of sequences. Concurrently, the hardware team develops high-throughput tools for automated plasmid testing, supported by a comprehensive human practices education campaign and entrepreneurship initiatives to bring AI-driven solutions to market. [Wiki](https://2024.igem.wiki/utoronto) | [Official Page](https://teams.igem.org/5230)https://static.igem.org/peertube/streaming-playlists/hls/dd726763-9d4c-46b0-b553-0567c580d312/55f14b1a-59ca-46b7-83b3-baedbb382db4-master.m3u8https://video.igem.org/videos/embed/tm2gR5H3kdPNVxnnDNx8c180901672024-10-09T22:38:04.398ZYES2024 PresentationsNOhttps://video.igem.org/w/du9TYeVfGE96HJtfwHoWUnhttps://video.igem.org/lazy-static/thumbnails/0562ec3b-d456-4254-af67-c74b5c728384.jpgRainsACA-China: Magical world of cucumbers: secret of how CsTBH-CsPAL allows epi... (2024) - Team...**Title:** Magical world of cucumbers: secret of how CsTBH-CsPAL allows epidermal trichome to produce flavonoids **Description:** In order to achieve the goal of using cucumber epidermal trichome to synthesize flavonoids, the problem that this project needs to solve is: Is it possible to modify the key gene CsTBH and flavonoid metabolism gene (PAL) of cucumber epidermal trichome. By using synthetic biology and analyzing the difference in product content, it is possible to determine the effect of the CsTBH-CsPAL system on the synthesis of flavonoids and produce more flavonoids in cucumbers. [Wiki](https://2024.igem.wiki/rainsaca-china) | [Official Page](https://teams.igem.org/5488)https://static.igem.org/peertube/streaming-playlists/hls/651bf8cb-4eeb-4430-9362-55a341602c35/6845ce03-04e9-4f8b-8652-6677917a24bb-master.m3u8https://video.igem.org/videos/embed/du9TYeVfGE96HJtfwHoWUn8150252024-10-09T22:46:36.488ZYES2024 PresentationsNOhttps://video.igem.org/w/9STAQG8McfEocip4pfc6z4https://video.igem.org/lazy-static/thumbnails/80c31e5f-3bed-40c9-851a-14fc102ec944.jpgUChicago: VIPR: Virus-Inspired Particle Recombinant Vaccine for Schistosomiasis (2024) - Team Pre...**Title:** VIPR: Virus-Inspired Particle Recombinant Vaccine for Schistosomiasis **Description:** Schistosomiasis is a World Health Organization (WHO) listed Neglected Tropical Disease characterized by the blood-dwelling helminths. Currently, all schistosomiasis vaccine candidates based on recombinant subunit antigens have encountered setbacks at various stages of clinical trials, underscoring the formidable challenges in vaccine development. Critically, these subunit vaccines lack the three-dimensional macrostructure necessary for optimal recognition by B cells as pathogenic. Drawing inspiration from Professor Mark Howarth’s group’s SpyCatcher-SpyTag system, a protein coupling tool for peptide and protein ligation, our objective is to conjugate schistosomiasis antigens on virus-like-particle (VLP) scaffold to create high-density antigen nanoparticles to enhance vaccine immunogenicity. Together with a batch of novel antigens discovered in January 2024 through unbiased phage display, our aim is to present a diverse range of schistosomiasis antigens on VLPs. Thanks to the modularity of our VIPR, we hope to accelerate vaccine development and antigen screening for helminth diseases with a complex life cycle. [Wiki](https://2024.igem.wiki/uchicago) | [Official Page](https://teams.igem.org/5138)https://static.igem.org/peertube/streaming-playlists/hls/47e4190b-5d1a-40cf-af6d-ae4d74ff8c69/7399cbde-08a2-4be0-bb99-1d50ae9a021e-master.m3u8https://video.igem.org/videos/embed/9STAQG8McfEocip4pfc6z48690282024-10-09T22:59:13.523ZYES2024 PresentationsNOhttps://video.igem.org/w/cVJPFreH5rJdT8x9fv72W5https://video.igem.org/lazy-static/thumbnails/17a22c6a-368c-4876-a3fe-a0510a496822.jpgAlma: Com-bat-ing White Nose Syndrome (2024) - Team Presentation [English]**Title:** Com-bat-ing White Nose Syndrome **Description:** White-Nose Syndrome affects five of the nine bat species located in Michigan: the Little Brown bat, the Big Brown Bat, the Tricolored bat, the Indiana bat, and the Northern Long-Eared bat. The disease is caused by the fungus Pseudogymnoascus destructans, which infects bats during their hibernation period, causing the collagen in their noses to slowly degrade due to proteolytic enzymes produced by the fungus. This causes the bats to become active from hibernation prematurely, which results in lethargy due to the limited resources. Without the necessary means to sustain life available in the winter season, death is often a result. There is currently no widespread treatment to prevent P. destructans infections in bats. We aim to engineer E. coli that secrete a serine protease inhibitor(s) to prevent collagen degradation. [Wiki](https://2024.igem.wiki/alma) | [Official Page](https://teams.igem.org/5324)https://static.igem.org/peertube/streaming-playlists/hls/609555c9-8c55-4b82-9a07-ba85abe21c64/966f8888-24e9-4112-bc80-82223a1410bb-master.m3u8https://video.igem.org/videos/embed/cVJPFreH5rJdT8x9fv72W55050352024-10-09T22:51:57.764ZYES2024 PresentationsNOhttps://video.igem.org/w/dVFbKrSo8WyK4ULm87A3Wfhttps://video.igem.org/lazy-static/thumbnails/42318561-ac0d-49f9-8617-1809417a22ec.jpgOutaouais: TIME2ACT: Transformative Innovation in Material Enzyme Engineering to... (2024) - Team...**Title:** TIME2ACT: Transformative Innovation in Material Enzyme Engineering to Advance Carbon capture Technology **Description:** Our team consists of 50 passionate mentors and students from three academic institutions in Gatineau, Québec. In our inaugural iGEM season, we directed our efforts toward tackling plastic pollution and the climate crisis, seeking to understand how best to position our project and our outreach activities to maximize our impact on these urgent environmental issues. Our project, TIME2ACT, focuses on using PET degrading enzymes for transforming poorly recycled PET plastic waste into durable and highly performant mesoporous materials with applications in carbon capture and electrochemical storage and conversion industries. By harnessing our newly acquired skills in synthetic biology, entrepreneurship, and communication, we aim to give new value to plastic debris that litters our forests, lakes, and rivers, while also contributing to global efforts to mitigate climate change and sensitize our community to the fact that it is definitely TIME2ACT. [Wiki](https://2024.igem.wiki/outaouais) | [Official Page](https://teams.igem.org/5197)https://static.igem.org/peertube/streaming-playlists/hls/68ac3b88-2ef4-4e8c-ba81-a66690961ea2/a4347481-e46d-4900-ae8c-d8c8104abc3d-master.m3u8https://video.igem.org/videos/embed/dVFbKrSo8WyK4ULm87A3Wf8350332024-10-09T23:07:58.242ZYES2024 PresentationsNOhttps://video.igem.org/w/vUh7hkQpCMxVVprq4BDGSVhttps://video.igem.org/lazy-static/thumbnails/94f6ebc7-ca4e-48a0-9c83-c02fe52ba15b.jpgIISER-TVM: PETal - Valorizing PET Plastic to Sandalwood Oil (2024) - Team Presentation [English]**Title:** PETal - Valorizing PET Plastic to Sandalwood Oil **Description:** The fashion and cosmetics industries are highly consumer-centric, impacting nearly everyone worldwide. These industries consume vast quantities of raw materials and can significantly harm the environment. Indian sandalwood oil is one such sought-after raw material in the beauty industry. PETal presents a novel solution by integrating plastic waste management with the production of sandalwood oil, using synthetic biology. Using engineered Pseudomonas putida that can metabolise the monomers of polyethylene terephthalate (PET), i.e. terephthalic acid (TPA) and ethylene glycol (EG), we aim to synthesise santalene and santalol, the major components of sandalwood oil. This offers a sustainable alternative to conventional sandalwood oil extraction, reducing the strain on natural populations and providing a novel method for plastic upcycling. By creating a value-added product from PET plastic waste, PETal has the potential to reshape waste management strategies, promote biodiversity conservation, and simultaneously meet the global demands for sandalwood oil. [Wiki](https://2024.igem.wiki/iiser-tvm) | [Official Page](https://teams.igem.org/5181)https://static.igem.org/peertube/streaming-playlists/hls/f2259fd0-8e8d-4ad6-93e9-74e671815c81/bb6ad8c9-993a-4077-8171-bbe0599c1b8d-master.m3u8https://video.igem.org/videos/embed/vUh7hkQpCMxVVprq4BDGSV89552152024-10-09T23:09:09.603ZYES2024 PresentationsNOhttps://video.igem.org/w/2j49dGfsVnG7sdtzcih2KNhttps://video.igem.org/lazy-static/thumbnails/93e510fb-a42e-49c3-959e-91409735ce5a.jpgOxford: What if one plasmid could combat AMR? (2024) - Team Presentation [English]**Title:** What if one plasmid could combat AMR? **Description:** Watch this video to find out about our teams work on our OneRing system, an alternative approach to combat AMR! [Wiki](https://2024.igem.wiki/oxford) | [Official Page](https://teams.igem.org/5465)https://static.igem.org/peertube/streaming-playlists/hls/0a9e7671-28e0-46d9-9540-cffef6ab6740/447978b5-d9d9-4f93-9018-eb9eb20f0012-master.m3u8https://video.igem.org/videos/embed/2j49dGfsVnG7sdtzcih2KN8880642024-10-09T23:31:00.495ZYES2024 PresentationsNOhttps://video.igem.org/w/aDH5mAebJP5VDv4rVYxvtRhttps://video.igem.org/lazy-static/thumbnails/da950ea5-dc38-42a6-8dd3-01448e757820.jpgUnivLyon1-INSALyon: BioSnare: when bacterial cellulose meets a colored bioglue p... (2024) - Team...**Title:** BioSnare: when bacterial cellulose meets a colored bioglue producing yeast **Description:** BioSnare presentation video [Wiki](https://2024.igem.wiki/univlyon1-insalyon) | [Official Page](https://teams.igem.org/5143)https://static.igem.org/peertube/streaming-playlists/hls/4e2614b2-a9fe-45dc-8742-a0fac9de229b/b78c7563-a8b6-4d97-872c-2b7df60e50b0-master.m3u8https://video.igem.org/videos/embed/aDH5mAebJP5VDv4rVYxvtR8160242024-10-09T23:24:05.842ZYES2024 PresentationsNOhttps://video.igem.org/w/aCs2pCFumSVwKY2PhrjUtbhttps://video.igem.org/lazy-static/thumbnails/83e34c9f-af85-485b-8af6-522a89a3aced.jpgHongKong-CUHK: ResiSense (2024) - Team Presentation [English]**Title:** ResiSense **Description:** Bacterial antibiotic resistance, exacerbated by antibiotic misuse and overuse, has become a global health crisis responsible for millions of deaths, particularly in underdeveloped areas. However, current diagnostic strategies require highly-trained personnel and expensive on-site equipment, which are often infeasible in low-resource settings. To help alleviate these challenges, we propose ResiSense, a cell-free point-of-care strategy tailored to rapidly detect bacterial antibiotic resistance genes. In the presence of a targeted resistance gene, a selected G-quadruplex DNAzyme will be produced from a strategically designed DNA template by rolling circle amplification (RCA). The DNAzyme oxidises colourless tetramethylbenzidine (TMB) into blue TMB⁺, resulting in colourimetric detection. As a proof of concept, we generated a non-infectious Escherichia coli strain containing a short snippet of blaKPC2, an antibiotic resistance gene derived from Klebsiella pneumoniae, and we successfully detected the gene via the RCA-generated DNAzyme. ResiSense represents a rapid and economical technology that could accurately detect antibiotic resistance. [Wiki](https://2024.igem.wiki/hongkong-cuhk) | [Official Page](https://teams.igem.org/5041)https://static.igem.org/peertube/streaming-playlists/hls/4df90fca-8506-46fe-8cf7-1466309e8f18/c10f9202-67f4-447c-8e3c-28a014392b79-master.m3u8https://video.igem.org/videos/embed/aCs2pCFumSVwKY2PhrjUtb9000802024-10-09T23:44:08.576ZYES2024 PresentationsNOhttps://video.igem.org/w/8DfqawKUUJv1V839atj94whttps://video.igem.org/lazy-static/thumbnails/f1efb090-9d7e-499b-9900-9925681c9b53.jpgSCU-China: VersaTobacco (2024) - Team Presentation [English]**Title:** VersaTobacco **Description:** Nicotiana benthamiana is a commonly used chassis for plant synthetic biology, however, we found that Nicotiana benthamiana contains too much chlorogenic acid and its derivatives. Therefore, we identified HQT, a key gene in the chlorogenic acid metabolic pathway, and constructed the HQT knockout chassis, VersaTobacco. As a novel chassis for plant synthetic biology that can effectively reduce the accumulation of chlorogenic acid and increase the yield of other products of interest, VersaTobacco is expected to provide new application scenarios for scientific research, healthcare, and the plant industry. [Wiki](https://2024.igem.wiki/scu-china) | [Official Page](https://teams.igem.org/5223)https://static.igem.org/peertube/streaming-playlists/hls/3de35fea-77bc-4ead-9646-31c810887c0c/d7ed4f5f-739b-4304-a12f-2a1b5ae3f23d-master.m3u8https://video.igem.org/videos/embed/8DfqawKUUJv1V839atj94w8840302024-10-09T23:45:09.448ZYES2024 PresentationsNOhttps://video.igem.org/w/asTNfbhyYNkaEbjqpLMncBhttps://video.igem.org/lazy-static/thumbnails/4f0a1a66-d433-45dd-9225-cfdaafd11299.jpgHopkins: CaddisGraft (2024) - Team Presentation [English]**Title:** CaddisGraft **Description:** A biodegradable, underwater adhesive silk mesh for hernia repair in surgery [Wiki](https://2024.igem.wiki/hopkins) | [Official Page](https://teams.igem.org/5275)https://static.igem.org/peertube/streaming-playlists/hls/4ca381d7-48b1-41d5-a171-6763aa4934bd/a1c957c1-0528-4eed-8eb8-d90ea02bb0f1-master.m3u8https://video.igem.org/videos/embed/asTNfbhyYNkaEbjqpLMncB8900132024-10-09T23:44:31.928ZYES2024 PresentationsNOhttps://video.igem.org/w/s2HS3pvw1Sd7YAcg5zibhrhttps://video.igem.org/lazy-static/thumbnails/9f8a18e1-7c8a-48d3-afd8-2b0908159d63.jpgUppsalaUniversity: Colorfold - Discovery and improvement of chromoproteins (2024) - Team Presenta...**Title:** Colorfold - Discovery and improvement of chromoproteins **Description:** In our project, we aim to address the environmental and health concerns associated with chemical dyes by exploring new biological colors and increasing the viability of existing chromophores. This initiative could potentially reduce the use of toxic chemicals prevalent in today's dye industry. Our project is divided into two main objectives: 1. To find novel biological colors from environmental samples of microorganisms. 2. To improve on a biological color molecule to make it suitable for upscaled production, in this case increasing the maturation speed of a chromoprotein. [Wiki](https://2024.igem.wiki/uppsalauniversity) | [Official Page](https://teams.igem.org/5527)https://static.igem.org/peertube/streaming-playlists/hls/d2cb25d5-5e6f-4359-883f-25cbafcdc499/e5fa12cb-f97c-40b5-aa93-e3597c9c2906-master.m3u8https://video.igem.org/videos/embed/s2HS3pvw1Sd7YAcg5zibhr8840182024-10-09T23:46:00.238ZYES2024 PresentationsNOhttps://video.igem.org/w/oQXwpCUW4vbvuzk5M6mMjChttps://video.igem.org/lazy-static/thumbnails/4c397998-a792-4ad1-8ed2-eb13fa7abc67.jpgGrand-Tokyo: VitalNK (2024) - Team Presentation [English]**Title:** VitalNK **Description:** 15 million people---that is the estimated number of deaths caused by thrombosis every year worldwide. It’s a serious problem worldwide, but especially so in the aging society of Japan. In our aim to create a preventative approach, we utilized nattokinase—an enzyme that can break down blood clots—-by overproducing them in a new host of iGEM, B. subtilis natto. We hope to implement this nattokinase in a thickening agent, which elderlies regularly use as part of their meal. With the power of synthetic biology and this brand-new product, improving the quality of life for the aging society in Japan is just around the corner. [Wiki](https://2024.igem.wiki/grand-tokyo) | [Official Page](https://teams.igem.org/5315)https://static.igem.org/peertube/streaming-playlists/hls/b8fef832-d299-49d4-89ae-b3a7443b5a9c/47bbc3f5-02e0-4984-8cc5-9bc8565e5d0a-master.m3u8https://video.igem.org/videos/embed/oQXwpCUW4vbvuzk5M6mMjC8980852024-10-09T23:50:00.494ZYES2024 PresentationsNOhttps://video.igem.org/w/1qcW1sPcodAH7XSoJYsVTphttps://video.igem.org/lazy-static/thumbnails/eb1bff90-ab43-42f6-97ec-042809184165.jpgNWU-CHINA-A: ExoCure MPS II- Engineerd Exosome Delivery of IDS Enzyme to Treat M... (2024) - Team...**Title:** ExoCure MPS II- Engineerd Exosome Delivery of IDS Enzyme to Treat MPS II **Description:** Mucopolysaccharidosis type II (MPS II) is a rare X-linked recessive genetic disorder that is classified as heavy or light depending on whether the central nervous system is affected. Currently available treatments are limited, expensive, and risky for patients with severe MPS II. Exosomes are extracellular vesicles secreted by a group of cells with diameters ranging from 30-150 nm. In recent years, exosomes have been shown to have great potential as drug carriers, especially engineered exosomes obtained after engineering modifications, which are widely used in the treatment of brain diseases and cancers due to their low immunogenicity, targeting, and ability to penetrate the blood-brain barrier (BBB), among other characteristics. Based on this background, this year's NWU-CHINA-A team explored the enzyme-carrying capacity and ability to penetrate the blood-brain barrier of engineered exosomes through a series of molecular design and cellular experiments. This provides more therapeutic ideas and application possibilities for engineered exosomes as drug-carrying delivery systems. [Wiki](https://2024.igem.wiki/nwu-china-a) | [Official Page](https://teams.igem.org/5499)https://static.igem.org/peertube/streaming-playlists/hls/0361340d-2b28-49f0-803b-ec52dfba3169/c0dcc1c0-7bfd-489b-8e54-b509e7899b3f-master.m3u8https://video.igem.org/videos/embed/1qcW1sPcodAH7XSoJYsVTp8620202024-10-09T23:50:26.239ZYES2024 PresentationsNOhttps://video.igem.org/w/8XgSLM8bAQH7j2HZLU11QBhttps://video.igem.org/lazy-static/thumbnails/96097d1b-d646-47b2-a0d0-4ff428030a4d.jpgHNU-China: flouroshield, an innovative way to fight chytridmycosis. (2024) - Team Presentation [E...**Title:** flouroshield, an innovative way to fight chytridmycosis. **Description:** a brief introduction to team HNU-China, and a summarize for the work we did this year. devided by four groups: wet lab,dry lab, artwork and human practice. [Wiki](https://2024.igem.wiki/hnu-china) | [Official Page](https://teams.igem.org/5116)https://static.igem.org/peertube/streaming-playlists/hls/4067a959-6693-49dc-8dea-0d7e9d97f183/4ff89afe-55c8-4bf7-8bec-013011a98ee4-master.m3u8https://video.igem.org/videos/embed/8XgSLM8bAQH7j2HZLU11QB8390242024-10-09T23:51:27.763ZYES2024 PresentationsNOhttps://video.igem.org/w/u6QUH9r397yKcgsTdARqfChttps://video.igem.org/lazy-static/thumbnails/6ccd067c-965d-47d3-a550-da2355d3be35.jpgKhanLabSchool: Eat Methane by Khan Lab School (2024) - Team Presentation [English]**Title:** Eat Methane by Khan Lab School **Description:** We want you to remember two words from our presentation: eat methane. Methane, a greenhouse gas, has 86 times the warming impact of CO2 over 20 years and comprises 11.1% of emissions. Its severe environmental impact contributes to the formation of ground-level ozone, which damages crops and poses significant health risks. Landfills are major methane sources, contributing to 17.1% of emissions in the United States. Our project aims to address this issue by genetically modifying the soil bacterium Bacillus subtilis to produce enzymes that convert methane into compounds that boost soil fertility. This innovative approach reduces methane emissions while enhancing soil health. [Wiki](https://2024.igem.wiki/khanlabschool) | [Official Page](https://teams.igem.org/5128)https://static.igem.org/peertube/streaming-playlists/hls/e390be10-6b52-46c1-917c-532c0b8628b8/60763a04-ed88-484c-844d-2d96596b57fa-master.m3u8https://video.igem.org/videos/embed/u6QUH9r397yKcgsTdARqfC8990462024-10-10T00:02:15.364ZYES2024 PresentationsNOhttps://video.igem.org/w/3nD85t62nA22P9KopZK5Zehttps://video.igem.org/lazy-static/thumbnails/c5ee3e91-9f84-470a-bc33-5da3ca653d62.jpgRDFZ-CHINA: Integrated Bioremediation of Petroleum Contamination Using Engineere... (2024) - Team...**Title:** Integrated Bioremediation of Petroleum Contamination Using Engineered Microbes and Plants **Description:** Our project addresses the critical issue of petroleum pollution by developing an innovative bioremediation system. We engineered E. coli and B. subtilis to degrade residual oil using enzymes like AlkM and laccase, while also enhancing efficiency with surfactants. Additionally, we integrated plant-microbe cooperation by utilizing E. coli to produce the plant hormone IAA, promoting phytoremediation. To ensure biosafety, we incorporated a suicide system to prevent gene leakage. This multi-faceted approach offers a sustainable and scalable solution for addressing petroleum contamination. [Wiki](https://2024.igem.wiki/rdfz-china) | [Official Page](https://teams.igem.org/5468)https://static.igem.org/peertube/streaming-playlists/hls/1337c614-39ee-40b4-827c-0dc01b8ec72f/63026e6a-7d71-4146-bb08-7468a25f6be8-master.m3u8https://video.igem.org/videos/embed/3nD85t62nA22P9KopZK5Ze87201112024-10-09T23:57:52.324ZYES2024 PresentationsNOhttps://video.igem.org/w/f4kDzTHXZuxfhBJ87fxNwzhttps://video.igem.org/lazy-static/thumbnails/cb4a6820-5f6a-4b2f-87d7-4f8c29db4dd1.jpgIISc-Bengaluru: A Foundation Towards Therapeutics for Proteinopathies (2024) - Team Presentation ...**Title:** A Foundation Towards Therapeutics for Proteinopathies **Description:** The pathophysiology of proteinopathies is quite different from what we normally understand by a disease. It's one's own protein that gets misfolded and then transforms the normal ones to disordered. Since most of the Neurodegenerative diseases are proteinopathies, a resolution for degradation of misfolded proteins, can change the whole scene of treatments for Neurodegenerative diseases that we have today. [Wiki](https://2024.igem.wiki/iisc-bengaluru) | [Official Page](https://teams.igem.org/5170)https://static.igem.org/peertube/streaming-playlists/hls/71d747f3-ca58-42b0-8b52-d0ab0d4c7e9d/0c77a92a-149b-4d3b-97eb-58f24e914cdb-master.m3u8https://video.igem.org/videos/embed/f4kDzTHXZuxfhBJ87fxNwz5190402024-10-10T00:05:01.138ZYES2024 PresentationsNOhttps://video.igem.org/w/tSofKxZcJMGvZ7WvyPfS8Zhttps://video.igem.org/lazy-static/thumbnails/1c0149d5-d009-426e-bc12-52e9427e595d.jpgIM-PANAMA: Illuminating Solutions: Battling Fusarium Wilt in Bananas Through Syn... (2024) - Team...**Title:** Illuminating Solutions: Battling Fusarium Wilt in Bananas Through Synthetic Biology **Description:** Join the IMPANAMA team as we tackle Fusarium wilt disease, a major threat to banana production. This video explores our innovative approach using synthetic biology and quorum sensing to empower local farmers with efficient detection methods. [Wiki](https://2024.igem.wiki/im-panama) | [Official Page](https://teams.igem.org/5394)https://static.igem.org/peertube/streaming-playlists/hls/e1afa5a4-18e1-4291-9fed-8f00f3ee1b37/17a9d564-ed89-4587-bf1d-57be44039659-master.m3u8https://video.igem.org/videos/embed/tSofKxZcJMGvZ7WvyPfS8Z8990142024-10-10T00:22:56.957ZYES2024 PresentationsNOhttps://video.igem.org/w/hJpsa8jgzujjZCSd97kCuThttps://video.igem.org/lazy-static/thumbnails/01854a66-7b86-49cf-bb44-b9012964083b.jpgBJWZ-3-China: Aflatoxin B1 Real-time Crasher (2024) - Team Presentation [English]**Title:** Aflatoxin B1 Real-time Crasher **Description:** This presentation video from BJWZ-3-China offers a detailed and engaging introduction to our project. It is organized into sections, including the introduction and background, objectives, experiments, next steps, human practices, safety, and attribution. We have included relevant images from the project to highlight our team's efforts and effectively showcase the key aspects of our work. We hope to present both our team’s spirit and the core elements of our project in the best possible way. [Wiki](https://2024.igem.wiki/bjwz-3-china) | [Official Page](https://teams.igem.org/5328)https://static.igem.org/peertube/streaming-playlists/hls/877de8b9-cd86-48e7-9a70-58d3cc0e89f3/f1031add-08b8-4aa6-a0be-f97180a7d26b-master.m3u8https://video.igem.org/videos/embed/hJpsa8jgzujjZCSd97kCuT8980562024-10-10T01:11:37.054ZYES2024 PresentationsNOhttps://video.igem.org/w/6usDjf3K4gSV7BdryzuNfFhttps://video.igem.org/lazy-static/thumbnails/5f3e3058-ff14-4f0f-ae16-0eb3ad675e04.jpgABOA: AstroVita – Enabling Long-Distance Space Travel with Synthetic Biology (2024) - Team Presen...**Title:** AstroVita – Enabling Long-Distance Space Travel with Synthetic Biology **Description:** To make long space exploration missions possible, we cannot rely on continuous shipments from Earth and life support systems need to be regenerative. Currently, oxygen and water are recovered and regenerated on the ISS but long missions call for closing the carbon cycle as well. Growing plants for this purpose requires large amounts of resources in the space setting. At the same time, cellular agriculture is emerging as a promising new technology for producing food on Earth with low land use and resource requirements. Could we utilize this technology in space? This is the question we set out to solve. In our project AstroVita, we mapped out potential opportunities and challenges in utilizing cellular agriculture in space, developed a synthetic biology solution to improve the vitamin content of microbial food and modeled a microbial system for use in space. [Wiki](https://2024.igem.wiki/aboa) | [Official Page](https://teams.igem.org/5260)https://static.igem.org/peertube/streaming-playlists/hls/2c76f03b-a546-4d45-b1b9-6ce0200cac7b/388883cd-dbb9-45ac-b0be-520a5c1b165c-master.m3u8https://video.igem.org/videos/embed/6usDjf3K4gSV7BdryzuNfF6810592024-10-10T00:23:34.001ZYES2024 PresentationsNOhttps://video.igem.org/w/k2Z7BAdvZ4Ax7EL9BSC5h9https://video.igem.org/lazy-static/thumbnails/ee064109-4390-45db-bb43-45c4a9ccf4f0.jpgREC-CHENNAI: PLASTICOPS: Cleansing The World off Microplastics Using Engineered ... (2024) - Team...**Title:** PLASTICOPS: Cleansing The World off Microplastics Using Engineered E. coli **Description:** Project PLASTICOPS developed by the iGEM Team REC-CHENNAI 2024 aimed at addressing the global crisis of microplastic pollution. Utilizing synthetic biology, we focused on engineering E. coli to produce specific peptides that can efficiently capture microplastics such as polyethylene, polypropylene, and polystyrene. These peptides are immobilized on resins to remove microplastics from contaminated water and environments. The project combines computational modeling, molecular simulations, and advanced laboratory techniques to offer an eco-friendly, scalable solution to microplastic contamination, contributing to cleaner ecosystems and public health. [Wiki](https://2024.igem.wiki/rec-chennai) | [Official Page](https://teams.igem.org/5227)https://static.igem.org/peertube/streaming-playlists/hls/9a249379-fc4c-45eb-ae55-93c98b9005d8/58d7c9a5-df3f-4749-ada7-c1772b119190-master.m3u8https://video.igem.org/videos/embed/k2Z7BAdvZ4Ax7EL9BSC5h989901252024-10-10T00:55:14.158ZYES2024 PresentationsNOhttps://video.igem.org/w/gtjQ1AtnKczMpyResYqxDkhttps://video.igem.org/lazy-static/thumbnails/2f22c21e-47d2-4afc-b8a6-c4a4bea95db0.jpgMichiganState: PLA to Power (2024) - Team Presentation [English]**Title:** PLA to Power **Description:** Many researchers have challenged the degradability of the biopolymer Polylactic Acid (PLA), hugely popular in 3D printing. To address PLA's environmental persistence, we are working to engineer the bacterium Shewanella oneidensis MR-1 to degrade PLA and generate power from its breakdown. S. oneidensis is a gram-negative, facultative anaerobe capable of extracellular electron transfer, and can break down organic material and generate electricity in microbial fuel cells. It utilizes lactic acid as its carbon source to produce electricity. Therefore, we engineered S. oneidensis with genes encoding for PLA depolymerases from the bacteria Paenibacillus amylolyticus strain TB-13, Amycolatopsis sp. K104-1, Alcanivorax borkumensis and Rhodopseudomonas palustris. When expressing these genes, we expect that S. oneidensis will be capable of depolymerizing PLA to lactic acid, then using the lactic acid as a substrate for electricity production. The engineered S. oneidensis strains were tested on solid and emulsified PLA to detect degradation of PLA to monomeric lactic acid. The S. oneidensis strains that were successful in degrading PLA will be used in a microbial fuel cell for electricity production with PLA as the carbon source. [Wiki](https://2024.igem.wiki/michiganstate) | [Official Page](https://teams.igem.org/5325)https://static.igem.org/peertube/streaming-playlists/hls/7d49c3c4-1930-4c07-806f-7e3b8e5a5711/571cb6a3-bca5-4a7f-ada0-b1f50a93c088-master.m3u8https://video.igem.org/videos/embed/gtjQ1AtnKczMpyResYqxDk8290232024-10-10T00:28:01.041ZYES2024 PresentationsNOhttps://video.igem.org/w/qtvhi4z5z51rjr3kDy18Fnhttps://video.igem.org/lazy-static/thumbnails/23a84e4c-2b21-428e-bbc9-5f33efb441d5.jpgUBC-Vancouver: nuCloud: The New Nucleotide-Based Data Storage Cloud (2024) - Team Presentation [E...**Title:** nuCloud: The New Nucleotide-Based Data Storage Cloud **Description:** As global demand for data storage skyrockets, studies report that traditional data centres are projected to be incapable of meeting the demands of the near future. They also cause environmental damage by depleting natural resources. nuCloud is a synthetic biology-based DNA data storage platform that addresses the unmet demand for global data storage. Inspired by the high storage density, durability, and efficiency of DNA, nuCloud offers a solid-phase enzymatic DNA synthesis system using a thermostable TdT variant. Combined with an automated microfluidic system and error-correcting software pipeline, nuCloud can encode digital information into nucleotide sequences, synthesize corresponding DNA strands, and decode it back to binaries for its users. This innovative approach provides a sustainable and scalable biomanufacturing solution to meet the data storage demands of the future. [Wiki](https://2024.igem.wiki/ubc-vancouver) | [Official Page](https://teams.igem.org/5228)https://static.igem.org/peertube/streaming-playlists/hls/c6327463-b4a9-4980-afd3-292e41e6a3c7/43ff06f0-57aa-47ec-a022-afabf6681cb1-master.m3u8https://video.igem.org/videos/embed/qtvhi4z5z51rjr3kDy18Fn8910752024-10-10T00:50:31.928ZYES2024 PresentationsNOhttps://video.igem.org/w/oVrDotHpTr3YfbvnM64dFMhttps://video.igem.org/lazy-static/thumbnails/b87d553d-16b5-4945-9d1b-29c27eb1a070.jpgHBMU-Taihe: EvC-T system (2024) - Team Presentation [English]**Title:** EvC-T system **Description:** The EvC-T system is an innovative therapeutic approach for hepatocellular carcinoma (HCC) developed by HBMU-Taihe in 2024. This system consists of two composite parts: GPC3-CAR and EXOtic. The EvC-T system aims to develop a virus-free CAR-T cell immunotherapy platform. It incorporates an AFP promoter and IL-12 secretion module based on GPC3-CAR, which further enhances the targeting and tissue specificity of CAR-T cells, significantly improving the safety of CAR-T therapy. For GPC3-negative HCC cells, the EvC-T system employs a hypoxia-inducible exosome delivery mechanism. Using the L7Ae-C/D box sequence, exosomes deliver GPC3 mRNA to hypoxic regions in liver cancer tissues, converting GPC3-negative cells into GPC3-positive cells, thus making them targets for GPC3-CAR-T cell attacks. Under hypoxic conditions, the EXOtic system can further activate the GPC3-CAR-T cell.This combined killing mechanism greatly improves treatment efficiency. [Wiki](https://2024.igem.wiki/hbmu-taihe) | [Official Page](https://teams.igem.org/5073)https://static.igem.org/peertube/streaming-playlists/hls/b99f463e-076a-460b-8aaa-0fbf1691ad5b/1924eb8c-908c-4e86-9958-9bdc87b77736-master.m3u8https://video.igem.org/videos/embed/oVrDotHpTr3YfbvnM64dFM8810522024-10-10T01:04:57.439ZYES2024 PresentationsNOhttps://video.igem.org/w/pFk2U759PNrpZnvc1pPR1Thttps://video.igem.org/lazy-static/thumbnails/7081488c-0602-4050-94ab-241fdc91394c.jpgLZU-China: Entero Guard, a probiotic system for safe and efficient detection and... (2024) - Team...**Title:** Entero Guard, a probiotic system for safe and efficient detection and treatment of IBD **Description:** To address the shortcomings in current treatments for IBD, we presented Entero Guard, an automatic engineered probiotic system that can diagnose and treat IBD efficiently and safely. We first designed a biodiagnosis strain that contains ThsS and ThsR to form a signaling network after detecting sulfide to detect inflammation. We then added a CRISPR based editor system to amplify the signal reaction by controlling our drug--AvCystatin's expression, which plays a crucial role in regulating macrophage immune responses, activating cellular MAP kinase and inducing the expression of IL-10 and IL-12/23, thereby effectively alleviating gut inflammation. To control drug expression, we designed a suicide switch with PnorV, a key biobrick that can detect the level of nitric oxide in gut and eventually activate a toxic protein, MazF, which leads to cell apoptosis. we wish this idea can bring new possibility for IBD treatment and help IBD patients return to a normal life.While conducting research and optimization of our projects, we continuously engage in various enriching human practice activities to bring our project and synthetic biology to a broader audience. We hope that our project can make a greater to humanity. [Wiki](https://2024.igem.wiki/lzu-china) | [Official Page](https://teams.igem.org/5391)https://static.igem.org/peertube/streaming-playlists/hls/bfbfecf0-9e21-4f86-b3d2-b88a9881361f/c8640b30-def4-4107-9487-b1c728eae1d3-master.m3u8https://video.igem.org/videos/embed/pFk2U759PNrpZnvc1pPR1T8970412024-10-10T01:12:19.039ZYES2024 PresentationsNOhttps://video.igem.org/w/c2bHG6zm5PUecD6qpfWT7Nhttps://video.igem.org/lazy-static/thumbnails/03df1422-b132-441a-a9bb-c6d2942238f6.jpgExeter: Bovitect: A Novel Bovine Tuberculosis Diagnostics Test (2024) - Team Presentation [English]**Title:** Bovitect: A Novel Bovine Tuberculosis Diagnostics Test **Description:** Bovine Tuberculosis (bTB) is a chronic infectious disease predominately infecting cattle and is endemic in South-West England. Testing regimes are critical to managing this disease, however the most common testing system is low in sensitivity, slow and stressful for cattle and farmers. We hope to improve the wellbeing and protect the livelihoods of farmers by developing a rapid and more specific bTB test. To do this we have developed an engineered Cas13a protein to detect RNA immune response biomarkers associated with bTB. In the presence of a blood sample, these will have the effect of cleaving the fluorophore from the quencher of the fluorescent probe to create a fluorescent response in the case of a positive result. Our designs have been informed and altered based on the input of relevant stakeholders throughout the entire process and paired with hardware and software concepts. We have also curated a parts collection and reliable and consistent measurements for our experiments which contribute to our gold award along with Integrated Human Practices. [Wiki](https://2024.igem.wiki/exeter) | [Official Page](https://teams.igem.org/5124)https://static.igem.org/peertube/streaming-playlists/hls/593edfee-9e5b-490a-aae2-eade2c367de6/bb78a569-0775-4e65-806b-a295fece3a18-master.m3u8https://video.igem.org/videos/embed/c2bHG6zm5PUecD6qpfWT7N8980482024-10-10T01:13:53.212ZYES2024 PresentationsNOhttps://video.igem.org/w/i4HXNbb5aC5DVKn2qdjgryhttps://video.igem.org/lazy-static/thumbnails/72e99b48-f7af-415a-93da-7387d220ec36.jpgucl: SepScan (2024) - Team Presentation [English]**Title:** SepScan **Description:** Sepsis contributes up to 11 million preventable deaths annually. The burden of disease is particularly concentrated in India, where advances in rapid-diagnostics is a neglected path to improving health outcomes. Recognising this, the UCL iGEM team developed asepsis scanning tool (SepScan). SepScan is a point-of care-test (POCT) to provide a quantitative read out of biomarker concentration for distribution in low and middle income countries. By using nanobody-nanoluciferase fusion proteins, we offer a new modality for lateral flow that can be adapted to suit other biomarkers, with further potential applications in pandemic preparedness. With a particular emphasis on sepsis and acute kidney injury in India, SepScan aims to provide a rapid readout of urinary Cystatin C. By aiming to increase the information capital of clinicians in resource constrained environments, this can be used to aid healthcare or community workers with triaging, managing risk, and ultimately saving preventable deaths in underserved communities. [Wiki](https://2024.igem.wiki/ucl) | [Official Page](https://teams.igem.org/5357)https://static.igem.org/peertube/streaming-playlists/hls/8a3072d3-0692-41de-a8fb-f1befc522936/d0f92e54-6d6a-46ac-900c-00ea21e59116-master.m3u8https://video.igem.org/videos/embed/i4HXNbb5aC5DVKn2qdjgry8910232024-10-10T01:17:30.081ZYES2024 PresentationsNOhttps://video.igem.org/w/2RnNgzGu1Gw8CKgLfpnN44https://video.igem.org/lazy-static/thumbnails/3f8dae49-80db-44b0-a469-27f7a6cda273.jpgXJU-China: Polyethylene Microplastic Shredders (2024) - Team Presentation [English]**Title:** Polyethylene Microplastic Shredders **Description:** This video introduces our project in terms of background，exploration，results and human-practice [Wiki](https://2024.igem.wiki/xju-china) | [Official Page](https://teams.igem.org/5268)https://static.igem.org/peertube/streaming-playlists/hls/0efe0447-dd1c-458f-b461-ef9bada0cd21/44ddd02d-a01a-4405-a853-1594694d99a1-master.m3u8https://video.igem.org/videos/embed/2RnNgzGu1Gw8CKgLfpnN448270152024-10-10T01:23:53.768ZYES2024 PresentationsNOhttps://video.igem.org/w/9Fq3duwxrh5s5bqEHS82zRhttps://video.igem.org/lazy-static/thumbnails/b56ef022-f8e3-4b99-8c96-f35387c50325.jpgEPFL: SYNPLODE (2024) - Team Presentation [English]**Title:** SYNPLODE **Description:** Presentation Video of EPFL iGEM team 2024 [Wiki](https://2024.igem.wiki/epfl) | [Official Page](https://teams.igem.org/5252)https://static.igem.org/peertube/streaming-playlists/hls/4649ee2d-0838-4889-b43b-6912f631d327/7a0679ee-17ae-4b8b-ad1a-c75b8691b7b5-master.m3u8https://video.igem.org/videos/embed/9Fq3duwxrh5s5bqEHS82zR7530752024-10-10T01:26:51.849ZYES2024 PresentationsNOhttps://video.igem.org/w/t5VHZPLayDsTPLi89Pcjsthttps://video.igem.org/lazy-static/thumbnails/f33379ab-ecdc-4957-8f90-fd3333f23d93.jpgQueens-Canada: SynAxis - An Engineered System for Targeted Degradation of Misfol... (2024) - Team...**Title:** SynAxis - An Engineered System for Targeted Degradation of Misfolded α-Synuclein in Parkinson’s Disease **Description:** Parkinson’s disease (PD) presents significant healthcare challenges, affecting millions globally and currently lacking disease-modifying therapies. Our project focuses on the engineered degradation of misfolded α-synuclein seeds, a key pathological feature in PD. Braak’s staging of PD highlights a progressive spread of pathological α-synuclein seeds, starting in the enteric nervous system within the gastrointestinal (GI) tract and advancing to the central nervous system. We developed a modular protein switch designed to selectively degrade pathological α-synuclein in enteroendocrine cells (EECs) of the gastrointestinal tract. This switch is activated by an output domain (CypD), ensuring degradation by the input domain (KLK6) occurs only in the presence of misfolded α-synuclein, thereby minimizing off-target effects. An oral spore-based probiotic delivery system encapsulates the switch, facilitating its targeted release to EECs. Our approach aims to change PD treatment by addressing the underlying pathology rather than merely managing symptoms and providing a strategy suitable for other synucleinopathies. [Wiki](https://2024.igem.wiki/queens-canada) | [Official Page](https://teams.igem.org/5079)https://static.igem.org/peertube/streaming-playlists/hls/db56d3d9-e81d-472d-9812-070b900fe16f/9bcf2731-2ff1-468f-8ef5-3a367ecb7f96-master.m3u8https://video.igem.org/videos/embed/t5VHZPLayDsTPLi89Pcjst9000392024-10-10T01:31:37.929ZYES2024 PresentationsNOhttps://video.igem.org/w/otSbmzMo1sYtAnCdQfKaY8https://video.igem.org/lazy-static/thumbnails/b374a0ea-4310-4484-b242-616567195e50.jpgNANJING-NFLSUNITED: The Bio-friendly Production of Vitamin B6 Based on the Cell-... (2024) - Team...**Title:** The Bio-friendly Production of Vitamin B6 Based on the Cell-free Expression System **Description:** Vitamins are essential nutrients with extensive applications in the pharmaceutical, food, animal feed, and cosmetics industries. For instance, Vitamin B6, whose synthetic precursor pyridoxine (PN), is currently produced through chemical synthesis using expensive and toxic chemicals. Additionally, the low catalytic efficiency of natural enzymes and the strict regulation of metabolic pathways hinder the microbial fermentation process for producing PN. In this project, we aim to construct a gene expression system closely related to vitamin synthesis, enabling its efficient expression outside the cell, which significantly improves the production efficiency of the relevant raw materials. Promoting research on engineered E. coli strains facilitates the production of microbial strains for vitamins and other bioproducts that have inherently low metabolic flux. [Wiki](https://2024.igem.wiki/nanjing-nflsunited) | [Official Page](https://teams.igem.org/5418)https://static.igem.org/peertube/streaming-playlists/hls/b60d0e51-5cb3-4f7c-8d53-ebed7766e693/3a2b5416-a653-4d9a-91a8-aa40507ac208-master.m3u8https://video.igem.org/videos/embed/otSbmzMo1sYtAnCdQfKaY88940152024-10-10T01:42:24.563ZYES2024 PresentationsNOhttps://video.igem.org/w/s2XwS7FrWeN4fGKikWYAPWhttps://video.igem.org/lazy-static/thumbnails/425ac1da-8217-4125-b99b-c9b2d4d85529.jpgDUESSELDORF: KlothY - Engineering Modular Textiles (2024) - Team Presentation [English]**Title:** KlothY - Engineering Modular Textiles **Description:** This video is about project KlothY, which focuses on developing a modular system to synthesise a textile fabric made of bacterial cellulose produced by Komagataeibacter xylinus. K. xylinus was genetically modified, to be able to regulate cellulose production. To modify the properties of the cellulose fabric, Saccharomyces cerevisiae acts as producer of metabolites, which impact flexibility and colour of the final product. We worked on integrating plant genes involved in hemicellulose biosynthesis and modified chromoproteins. Three chromoproteins attached to a cellulose binding domain would be used to dye our fabric in a range of colours based on the CMY colour model, also used in printers. To evaluate the impacts of this approach in and outside the lab, we met stakeholders from diverse backgrounds and incorporated their feedback into our project throughout the whole year. To understand the feasibility of this approach a life cycle analysis was conducted. The goal for the project is to contribute to the reduction of the harmful environmental impact textile production has globally, by focusing on local production and cutting down on the need for pesticides, emissions through extended transport chains, high water usage and environmental toxic pollutants, used in bleaching and colouring processes. [Wiki](https://2024.igem.wiki/duesseldorf) | [Official Page](https://teams.igem.org/5146)https://static.igem.org/peertube/streaming-playlists/hls/d2d39263-34bb-4672-8e8a-4a8e9e1a6c64/39846bd2-3f08-4bb4-b401-c0ad2ecc1c3d-master.m3u8https://video.igem.org/videos/embed/s2XwS7FrWeN4fGKikWYAPW8370612024-10-10T01:43:13.280ZYES2024 PresentationsNOhttps://video.igem.org/w/nRGXxrPr691PAcsWw3niS2https://video.igem.org/lazy-static/thumbnails/51cdd066-afde-4396-80f6-13d561cf18aa.jpgMcGill: Nucleio - A rapid DNA Computing and CRISPR-CasX point-of-care pathogen a... (2024) - Team...**Title:** Nucleio - A rapid DNA Computing and CRISPR-CasX point-of-care pathogen and AMR diagnostic platform **Description:** Sepsis is a serious medical emergency arising from a dysregulated host response to infection which claims 1 in 5 deaths globally, even in the best medical systems [1, 2]. Fortunately, sepsis is preventable; physicians simply need more information on the pathogen to blame. The current problem is rooted in diagnostic speed, with current bacterial classification not cutting it. This is unacceptable as every hour of delayed treatment means a decrease in survival of 7.6% [3]. McGill iGEM targets the root of the issue with Nucleio: a modular and multiplexable platform to catalyze, compute, and classify a new world of sepsis diagnostics. Nucleio is the next generation of bacterial diagnostics, identifying the bacterial cause and antimicrobial resistance factors of sepsis - a full 48 hours before current methods. Composed of parallel DpbCas12e "CasX" and DNA strand displacement-based amplification modules tailored for pathogen and AMR biosignatures recognition, Nucleio interfaces pathogen classification at clinically relevant concentrations with a winner-take-all neural network for bacterial classification. The combination of these modules creates a bacterial classification system which can be expanded to different contexts. Even beyond healthcare, Nucleio paves the way to rapid biomarker processing for countless fields. When as many as 80% of septic shock patients can be saved with rapid and accurate diagnosis and treatment, Nucleio puts hope back in sepsis diagnostics [4, 5]. [1] T. Evans, “Diagnosis and management of sepsis,” (in eng), Clin Med (Lond), vol. 18, no. 2, pp. 146-149, Mar 2018, doi: 10.7861/clinmedicine.18-2-146. [2] B. Gyawali, K. Ramakrishna, and A. S. Dhamoon, “Sepsis: The evolution in definition, pathophysiology, and management,” (in eng), SAGE Open Med, vol. 7, p. 2050312119835043, 2019, doi: 10.1177/2050312119835043. [3]S. ...https://static.igem.org/peertube/streaming-playlists/hls/b10098fd-c1b0-4dcb-93db-4c5f02d81061/e331956b-b614-4bd5-9ec1-8b6b9b468057-master.m3u8https://video.igem.org/videos/embed/nRGXxrPr691PAcsWw3niS285601042024-10-10T01:55:57.213ZYES2024 PresentationsNOhttps://video.igem.org/w/ghCdJzWJ5N3tvyDWQS2PxLhttps://video.igem.org/lazy-static/thumbnails/c172d1a2-e72d-44cf-b59c-3c6ad585dac7.jpgWestlake: Tumor-Targeting Salmonella-Mediated Therapy (2024) - Team Presentation [English]**Title:** Tumor-Targeting Salmonella-Mediated Therapy **Description:** This year, the Westlake team has developed a novel, comprehensive therapy method for solid tumors using an engineered attenuated strain of Salmonella called VNP20009, which is equipped with a recognition system, a delivery system, and a killing system to target and eliminate cancer cells through both extracellular and intracellular signals. The presentation video provides an in-depth overview of our project, covering the background of solid tumors and the rationale behind our approach, our project goal to create a safe and effective targeted therapy, a detailed methodology of how the engineered Salmonella strain functions, key experimental results and their implications, our initiatives to enhance public understanding and engagement through iHP and education activities, the stringent bio-safety measures we have implemented, computational models that support our findings and predict the therapy's efficacy and safety, and our future vision for the long-term impact of this innovative treatment on cancer therapy. [Wiki](https://2024.igem.wiki/westlake) | [Official Page](https://teams.igem.org/5363)https://static.igem.org/peertube/streaming-playlists/hls/7bcb4d22-eb9e-4c28-ba4b-1b9e86026a16/f953d45b-3732-4d4b-b1cf-e9776a2dc253-master.m3u8https://video.igem.org/videos/embed/ghCdJzWJ5N3tvyDWQS2PxL8370232024-10-10T02:03:39.036ZYES2024 PresentationsNOhttps://video.igem.org/w/w5QeWJ1sRuAhCNq78BML5Lhttps://video.igem.org/lazy-static/thumbnails/91a2a0c3-de18-4c8c-b24f-ea6dc5834993.jpgFormosa101: Proteosnail: Turning Golden Apple Snails from Pests to Helpers & Kee... (2024) - Team...**Title:** Proteosnail: Turning Golden Apple Snails from Pests to Helpers & Keeping up with Climate Change **Description:** Faced with the growing challenges of climate change, it’s becoming increasingly important to improve the resilience of crops to extreme temperatures to secure global agriculture. Our project seeks to introduce cold shock proteins (OtsA and OtsB) and heat shock protein (HSP70) from the golden apple snail into plants using synthetic biology techniques. By initially using E. coli as the delivery vector, and later transitioning to Agrobacterium, we aim to enhance plants' ability to tolerate both cold and heat stress. This strategy is inspired by existing research on cross-kingdom gene transfer, which uses bacterial vectors to introduce stress-resistance genes from animals into plants. With this innovative approach, we hope to bolster crop survival in the face of increasingly unpredictable environmental conditions. [Wiki](https://2024.igem.wiki/formosa101) | [Official Page](https://teams.igem.org/5424)https://static.igem.org/peertube/streaming-playlists/hls/f39edd34-bbb5-44d1-8755-80ce01ccc45c/feda41d7-5c33-4e78-9a4f-fbb4d232a27e-master.m3u8https://video.igem.org/videos/embed/w5QeWJ1sRuAhCNq78BML5L6835272024-10-10T02:04:52.900ZYES2024 PresentationsNOhttps://video.igem.org/w/aFdcRSqENgSD6QXQGQTj6zhttps://video.igem.org/lazy-static/thumbnails/10872a38-7117-49e1-9d1c-4ace96b526f8.jpgEvry-Paris-Saclay: PHAGEVO (2024) - Team Presentation [English]**Title:** PHAGEVO **Description:** Directed evolution mimics and accelerates the natural evolution process by generating random mutations and selecting desired variants. This project introduces PHAGEVO, a novel tool that combines Phage-Assisted Non-Continuous Evolution (PANCE) and the Evolution.T7 system, providing a powerful method for in vivo protein evolution. While PANCE enables efficient selection of functional variants, it lacks targeted gene specificity. We decided to combine it with Evolution.T7, a system developed by Evry-Paris-Saclay team 2021 which enables targeted and modular double-stranded in vivo mutagenesis using RNA polymerase-guided cytosine and adenine deaminases’ that introduce mutations in specific gene sequences. As a proof of concept, the project focuses on evolving the XylS transcription factor to detect plastic degradation products Phthalic Acid (PA) and Terephthalic Acid (TPA). Our project, PHAGEVO, also leverages the power of artificial intelligence to engineer XylS for PA and TPA sensitivity owing to FLINT, a model developed by our team based on PocketGen. [Wiki](https://2024.igem.wiki/evry-paris-saclay) | [Official Page](https://teams.igem.org/5061)https://static.igem.org/peertube/streaming-playlists/hls/4e5bc6b8-2b2b-4af3-bb85-37dfbb8cab43/1e2b4e2b-b8ad-4fd9-879f-fad9cecca124-master.m3u8https://video.igem.org/videos/embed/aFdcRSqENgSD6QXQGQTj6z8880512024-10-10T02:06:56.332ZYES2024 PresentationsNOhttps://video.igem.org/w/bKPKdeNugn3mcLYvREXAx6https://video.igem.org/lazy-static/thumbnails/14bf59c5-8ed4-4c28-b8e6-fa0fc058236c.jpgUTokyo: POIROT, POInt-of-care miRNA detection device for Ophthalmic diseases Tra... (2024) - Team...**Title:** POIROT, POInt-of-care miRNA detection device for Ophthalmic diseases Tracing **Description:** When your vision changes, your life will change. Glaucoma is one of the very common ophthalmic diseases that can affect anyone. It is the leading cause of blindness in Japan, and it affects approximately 76 million people worldwide and is expected to increase to 95 million by 2030. However, the development of treatments for glaucoma is difficult at present because damaged nerves are never restored. So, We turned our attention to early detection. We have developed a point-of-care miRNA detection device for ophthalmic diseases tracing. People can test for glaucoma risk anywhere, using only their own tear fluid and a detection kit, and without needing expensive equipment or complex operation. Glaucoma-specific miRNAs in the patient's tear fluid are sequence-specifically recognized by the TWJ complex. Next, Polymerase and Nickase repeatedly cleave and elongate the miRNA to generate ssDNA one after another. Then, CRISPR-Cas3 recognizes the amplified product, cleaving the FITC-ssDNA-Biotin reporter. If FITC-ssDNA-Biotin remains, a line appears in the strip, and if it is consumed, no line appears. By visually checking this, glaucoma can be detected. POIROT is not only useful as a glaucoma detection kit. It has the potential to pioneer the use of tear fluid as a biological sample. Moreover, depending on the design of the template and primer, it may become a trace detection kit for other miRNAs, potentially becoming a framework for detection kits for more diseases. When your vision changes, your life will change. [Wiki](https://2024.igem.wiki/utokyo) | [Official Page](https://teams.igem.org/5232)https://static.igem.org/peertube/streaming-playlists/hls/5719cae9-49e5-4d7c-bf60-6ba6ab2bd3ab/ab8ef3e9-7516-49ff-8aba-51966dad50d5-master.m3u8https://video.igem.org/videos/embed/bKPKdeNugn3mcLYvREXAx688101152024-10-10T02:24:47.359ZYES2024 PresentationsNOhttps://video.igem.org/w/oJd2GxAZ1otB8gw1YccNyRhttps://video.igem.org/lazy-static/thumbnails/5847580f-e51c-4d13-b19f-edf28788802d.jpgKCIS-Xiugang-Taipei: WAVEPLAST (2024) - Team Presentation [English]**Title:** WAVEPLAST **Description:** While environmentalists in Taiwan and around the globe have been endeavoring to protect our planet, plastic pollution is still endangering humanity and nature. An estimated 19-23 million tonnes of plastic waste annually leak into aquatic ecosystems. Using biological methods, PET plastic waste can be degraded into simpler compounds, such as MHET and TPA that can be used for future industry. Our team aims to increase the viability of biological recycling by creating mutations on the PETase enzyme under inducible promoters, T7, and pGal1, 10 in E.coli and yeast, respectively. [Wiki](https://2024.igem.wiki/kcis-xiugang-taipei) | [Official Page](https://teams.igem.org/5094)https://static.igem.org/peertube/streaming-playlists/hls/b80db3c1-c701-4f87-a229-b9a851395251/f49aa770-e171-4683-b8b7-16c2111ca60e-master.m3u8https://video.igem.org/videos/embed/oJd2GxAZ1otB8gw1YccNyR8630872024-10-10T02:14:09.368ZYES2024 PresentationsNOhttps://video.igem.org/w/e6thFXftgHveqZgh33AqtJhttps://video.igem.org/lazy-static/thumbnails/2de0ea6c-0062-45b5-a919-e842c18a505f.jpgManchester: E.lectrode (2024) - Team Presentation [English]**Title:** E.lectrode **Description:** How can synthetic biology revolutionise our connections to machines? Our bodies use electrical signals for cellular communication, and myoelectric prosthetics can translate electrical signals generated from muscle contractions in the residual limb into movement using dry metal electrodes. However, a critical limiting factor for these electrodes is the overreliance on direct contact with the skin, making them vulnerable to interference from sweat and movement. This results in the electrodes moving out of place, leading to inaccurate signal interpretation (motion artefacts), causing lagging limb movement. We aim to improve the electrode’s interface using electrically conductive pili (e-pili) derived from Geobacter sulfurreducens. By combining the e-pili’s PilA monomer with a skin-specific protein-binding tag on the carboxy-terminal end, we will create nanowires that adhere to the skin surface. These nanowires would decrease the distance electrical signals would need to travel without a conductor, minimising motion artefacts and improve signal detection in human–machine interfaces. [Wiki](https://2024.igem.wiki/manchester) | [Official Page](https://teams.igem.org/5177)https://static.igem.org/peertube/streaming-playlists/hls/6a0a568d-7a11-44b1-b9dd-ed01938976d8/eb8f6f74-c7eb-408c-b4ff-a00178015876-master.m3u8https://video.igem.org/videos/embed/e6thFXftgHveqZgh33AqtJ9000262024-10-10T03:19:16.883ZYES2024 PresentationsNOhttps://video.igem.org/w/k8HQAe2pvwksvbsxmUWv3thttps://video.igem.org/lazy-static/thumbnails/7698d8bb-97be-419b-a392-29aac0b6ad96.jpgDUT: Cellular Homeostasis Balancer (2024) - Team Presentation [English]**Title:** Cellular Homeostasis Balancer **Description:** A modular mRNA protein regulation platform with selectivity [Wiki](https://2024.igem.wiki/dut) | [Official Page](https://teams.igem.org/5475)https://static.igem.org/peertube/streaming-playlists/hls/9af19fd6-6a89-423d-91fa-e6546eb28893/462f9c97-1fae-4bdd-8b1e-372c016de008-master.m3u8https://video.igem.org/videos/embed/k8HQAe2pvwksvbsxmUWv3t8790202024-10-10T02:14:48.561ZYES2024 PresentationsNOhttps://video.igem.org/w/gU1fq43BTt5biSBusYrDoxhttps://video.igem.org/lazy-static/thumbnails/4d7cb8b6-bdaf-41fb-bb61-e8557258d289.jpgWHHS-Pro-China: Engineered Bacteria for Efficient Phosphate Adsorption and Recovery (2024) - Team...**Title:** Engineered Bacteria for Efficient Phosphate Adsorption and Recovery **Description:** This study focuses on developing an engineered phosphate recovery system using two bacterial strains. The first system, PhosLock 1.0, utilizes ice nucleation protein (INP) to anchor phosphate-binding proteins (PBP) on the cell surface, allowing efficient phosphate adsorption. The second system, PhosRegen 2.0, optimizes PBP secretion using the PelB signal peptide, which guides PBP into the extracellular medium. Both systems were experimentally validated for phosphate adsorption and desorption under varying pH and temperature conditions. PhosLock 1.0 demonstrated efficient phosphate binding, but faced challenges with bacterial stability. PhosRegen 2.0 addressed these limitations by coupling PBP with NHS-activated beads, improving both adsorption and desorption efficiency. This dual approach offers a promising solution for wastewater phosphate recovery and lays the foundation for scalable, sustainable environmental remediation technologies. [Wiki](https://2024.igem.wiki/whhs-pro-china) | [Official Page](https://teams.igem.org/5449)https://static.igem.org/peertube/streaming-playlists/hls/80bbe8ba-df3a-490c-8b80-a14169b60977/0681f25c-a406-4d8b-8d18-db1c981ebe7a-master.m3u8https://video.igem.org/videos/embed/gU1fq43BTt5biSBusYrDox868062024-10-10T02:21:40.486ZYES2024 PresentationsNOhttps://video.igem.org/w/hoAgqamB9ikRqmtG5o2BJLhttps://video.igem.org/lazy-static/thumbnails/4c80d16e-0792-485d-a317-a8c918c0c954.jpgNMU-China: LuminAid--a Luminescent Bio-Rescuer (2024) - Team Presentation [English]**Title:** LuminAid--a Luminescent Bio-Rescuer **Description:** Amid rapid human development, Earth's resources dwindle, urging us to look to the cosmos. Mars, our potential new home, fuels relentless exploration. Luminaid, our innovative spacesuit, utilizes algae-bacteria symbiosis for self-sustaining life support, addressing survival concerns in space. On Earth, Luminaid's bioluminescent tech can be integrated into life jackets, enhancing visibility & safety for marine workers and accelerating positioning for search & rescue operations .Echoing Earth's ecosystems, Luminaid also envisions societal benefits for polar expeditions, deep-sea exploration, & mining, reshaping our space & earthly endeavors. [Wiki](https://2024.igem.wiki/nmu-china) | [Official Page](https://teams.igem.org/5210)https://static.igem.org/peertube/streaming-playlists/hls/84b9b2d4-40ce-4d8e-b2d3-225dfa89ab24/c2c1f0e3-1b69-4e0c-a99b-4903da3343b1-master.m3u8https://video.igem.org/videos/embed/hoAgqamB9ikRqmtG5o2BJL8960762024-10-10T02:33:42.961ZYES2024 PresentationsNOhttps://video.igem.org/w/4YQTdWFw2Gm3qrmDuCR9wwhttps://video.igem.org/lazy-static/thumbnails/afa21989-694b-4fc6-b2ec-8f62960691b8.jpgRBHS-San-Diego: D.N.Aid - RBHS (2024) - Team Presentation [English]**Title:** D.N.Aid - RBHS **Description:** Describing our project D.N.Aid, which is meant to address DNA damage from UV radiation in space. [Wiki](https://2024.igem.wiki/rbhs-san-diego) | [Official Page](https://teams.igem.org/5135)https://static.igem.org/peertube/streaming-playlists/hls/203b3142-320d-418f-a719-b54606640fb2/ee23b926-5e30-4fa8-8f72-a3d2b86359bc-master.m3u8https://video.igem.org/videos/embed/4YQTdWFw2Gm3qrmDuCR9ww5810102024-10-10T02:29:28.880ZYES2024 PresentationsNOhttps://video.igem.org/w/jAjqW66NJgdZZntxEgtKKshttps://video.igem.org/lazy-static/thumbnails/20c9ff50-b7c7-435e-b01a-596f2a2216b9.jpgXMU-China: REPARO: Resolution of Eco-friendly Paper-purification, Alternative Re... (2024) - Team...**Title:** REPARO: Resolution of Eco-friendly Paper-purification, Alternative Recovery and Optimization **Description:** The rapid population growth has driven heavy demands for paper, leading to extensive deforestation and disturbing the ecological balance, thereby exacerbating the climate crisis. Enhancing the recycling of waste paper can mitigate deforestation, offering a significant contribution to addressing the climate crisis. Inspired by this, our project aims to investigate the current state and challenges of waste paper recycling in our REPARO project, we designed and developed an unprecedented deinking method based on synthetic biology, which could serve as a viable alternative to the chemical method on the industry scale. The implementation of our project holds immense potential to propel technological advancement and industrial upgrading within the waste paper recycling industry. Our project aims to introduce advanced biotechnology and environmental protection concepts to enhance the entire industry's production efficiency, product quality, and environmental protection level, thereby strengthening the industry's competitiveness and promoting the development of the circular economy. [Wiki](https://2024.igem.wiki/xmu-china) | [Official Page](https://teams.igem.org/5136)https://static.igem.org/peertube/streaming-playlists/hls/968f2451-b427-4a5f-aff5-9017949a4b0c/bc4995c5-0ba9-450e-ab74-7ef340b776dd-master.m3u8https://video.igem.org/videos/embed/jAjqW66NJgdZZntxEgtKKs89901382024-10-10T02:42:37.449ZYES2024 PresentationsNOhttps://video.igem.org/w/uAwW8a2hoiErL9AZRo1Vunhttps://video.igem.org/lazy-static/thumbnails/ff844994-2ba0-4d7d-92b3-0c410459a173.jpgUni-Padua-IT: SurPFAS - UniPadua_IT (2024) - Team Presentation [English]**Title:** SurPFAS - UniPadua_IT **Description:** SurPFAS tackles the issue of PFAS contamination, sadly notorious on our territory as well as in many other districts of the world. SurPFAS acts against the pollution of these synthetic chemicals in groundwater, with a 360-degree overview of all the aspects involved in the purification process. [Wiki](https://2024.igem.wiki/uni-padua-it) | [Official Page](https://teams.igem.org/5109)https://static.igem.org/peertube/streaming-playlists/hls/e7923be0-baa9-432b-8748-2abdf9024f21/57bbd628-cf68-4749-a60e-f51cea616179-master.m3u8https://video.igem.org/videos/embed/uAwW8a2hoiErL9AZRo1Vun8990982024-10-10T02:55:42.165ZYES2024 PresentationsNOhttps://video.igem.org/w/5LHKUj6xze9iAknBzECJrJhttps://video.igem.org/lazy-static/thumbnails/98de4487-c508-42b0-aa96-a223ba021578.jpgOTIA-Hangzhou: Microbiological manufacturing, Protect skin health (2024) - Team Presentation [Eng...**Title:** Microbiological manufacturing, Protect skin health **Description:** Reactive oxygen species (ROS) are toxic byproducts of oxygen metabolism and a major cause of skin aging. The skin has a natural defense system to eliminate ROS, but as we age and with increased UV exposure, these protective substances diminish, allowing more free radicals to accumulate and cause cellular damage. Studies have shown that neoagarooligosaccharides (NAOS) possess antioxidant properties and can effectively inhibit excess ROS. Our project involves designing an E. coli prokaryotic expression system to produce β-agarase (AgaA), an enzyme that specifically cleaves the β-1,4 glycosidic bond between D-galactose and 3,6-anhydro-α-L-galactose residues in agarose, generating the antioxidant NAOS. Using the ABTS method, we confirmed the antioxidant capability of NAOS. This antioxidant can be incorporated into skincare products to eliminate excess ROS in the skin, thereby protecting skin health. [Wiki](https://2024.igem.wiki/otia-hangzhou) | [Official Page](https://teams.igem.org/5216)https://static.igem.org/peertube/streaming-playlists/hls/26a3039e-d460-4f16-ab4a-8b7b08f5279c/f51767ac-2cf9-40f7-9a9a-33cdc6a637e0-master.m3u8https://video.igem.org/videos/embed/5LHKUj6xze9iAknBzECJrJ8890152024-10-10T02:38:13.598ZYES2024 PresentationsNOhttps://video.igem.org/w/q72VaxpdxEhV11jXcT3V7Bhttps://video.igem.org/lazy-static/thumbnails/49280161-4061-4867-800a-44ccba90873e.jpgVilnius-Lithuania: SYNHESION - bacterial glue made of polysaccharides (2024) - Team Presentation ...**Title:** SYNHESION - bacterial glue made of polysaccharides **Description:** In this video, we dive into the groundbreaking development of Synhesion, a revolutionary bioadhesive created through the power of synthetic biology. We explore how our team utilized Caulobacter crescentus to develop a sustainable, non-toxic adhesive with applications far beyond conventional glues, impacting industries and medicine. From diabetic patches to wound dressings, Synhesion's adhesive technology aims to provide a safer, more reliable solution for millions worldwide. We also highlight our journey of scientific discovery, detailing how we optimized the adhesive synthesis pathway using E. coli to create an industrial-scale production process that's faster, cheaper, and eco-friendly. Alongside our research, we share our commitment to education and outreach with initiatives bridging the synthetic biology knowledge gap through partnerships, podcasts, mobile games, and more. Stay tuned as we unveil this technology's potential to transform targeted drug delivery and its applications in cutting-edge cancer research. Synhesion isn't just about creating a stronger adhesive; it's about innovating sustainable solutions that could save lives and redefine the future of bioadhesives. Don't miss this inspiring journey of science, innovation, and real-world impact! [Wiki](https://2024.igem.wiki/vilnius-lithuania) | [Official Page](https://teams.igem.org/5246)https://static.igem.org/peertube/streaming-playlists/hls/c332f8bc-63a0-4c59-bfe8-ee405c345f13/3609ed07-d5c7-4e48-8dce-c746554e4386-master.m3u8https://video.igem.org/videos/embed/q72VaxpdxEhV11jXcT3V7B61501642024-10-10T02:59:12.967ZYES2024 PresentationsNOhttps://video.igem.org/w/ewM65hSLaY2TErjaTwSBtzhttps://video.igem.org/lazy-static/thumbnails/04e39261-2338-4370-acc6-ac70a8d47fb1.jpgAIS-China: Moskilla-A novel ATSB as a vector control method for mosquito-borne d... (2024) - Team...**Title:** Moskilla-A novel ATSB as a vector control method for mosquito-borne diseases **Description:** Mosquitoes are the major transmitting vectors of various infectious diseases, including malaria, yellow fever, and dengue fever. Though measures to control the spread of such diseases exist, the efficacy remains unsatisfactory. And the integrated method, attractive targeted sugar baits (ATSBs), while showing promise, is limited in its attractiveness to blood-feeding mosquitoes, the primary vectors for disease transmission. Addressing these limitations, AIS-China introduces a novel control method, Moskilla, which is an optimized ATSBs with the addition of HMBPP-producing E. coli to enhance the attractiveness to blood-feeding mosquitoes, and targeted shRNA mosquitocides to silence vital mosquito survival genes by RNAi mechanism, thus leading to mosquitoes’ deaths. Due to the impossibility of chemical synthesis, HMBPP is produced by engineered E. coli, able to overproduce HMBPP by enhancing the MEP pathway and downregulating the downstream IspH enzyme, resulting in a 0.45 mM yield of HMBPP. Additionally, shRNAs were effectively produced in yeast and demonstrated a 100% mortality rate of mosquitoes within three days. To ensure biosafety, a kill switch using the ΦX174-E gene was developed for E. coli, ensuring that the bacteria can be controlled outside the lab space. Based on these results, we developed a hardware device to limit the usage of GMOs for the realistic usage in the real world. This hardware device will then be our product for our startup. Moskilla presents a promising new solution for the prevention and control of mosquito-borne diseases that is eco-friendly, safe and effective. [Wiki](https://2024.igem.wiki/ais-china) | [Official Page](https://teams.igem.org/5186)https://static.igem.org/peertube/streaming-playlists/hls/6d92e6de-360b-49d8-9c72-75b57d4cc2fb/4cfabc30-ec32-425a-a78d-e73b43489151-master.m3u8https://video.igem.org/videos/embed/ewM65hSLaY2TErjaTwSBtz83252412024-10-10T03:06:29.522ZYES2024 PresentationsNOhttps://video.igem.org/w/pJJ8mizH27Q5eztB24Prqihttps://video.igem.org/lazy-static/thumbnails/25c65e86-eab2-42d7-b713-b7146c43f392.jpgHBUT-China: SUPERB-Sustainable upcycyling of PET to produce economic and promisi... (2024) - Team...**Title:** SUPERB-Sustainable upcycyling of PET to produce economic and promising bacteria cellulose **Description:** SUPERB, by using machine learning, predicts potential efficient mutant types and the glycosylation mutation sites from the known PET hydrolase database to enhance the efficiency of plastic degradation in mild and acid conditions. Furthermore, molecular docking is performed with the mutated enzyme and PET, HEMT to identify the most optimal mutant variant. At the same time, by optimizing the chassis cell Pichia pastoris and expression elements, a strain with high expression of plastic degrading enzyme was constructed. Combined with the way of biological transformation, the plastic degradation products of terephthalic acid (TPA) and ethylene glycol (EG) are synthesized into bacterial cellulose to realize the recycling and upcycling of plastics. [Wiki](https://2024.igem.wiki/hbut-china) | [Official Page](https://teams.igem.org/5249)https://static.igem.org/peertube/streaming-playlists/hls/c0396397-e554-4599-bdcb-78b5067e716d/4d963399-7c94-4ec5-8bf5-7e072912f8bd-master.m3u8https://video.igem.org/videos/embed/pJJ8mizH27Q5eztB24Prqi8950462024-10-10T03:13:25.925ZYES2024 PresentationsNOhttps://video.igem.org/w/ogMLQ6Rzn3dpNr527Pg6vWhttps://video.igem.org/lazy-static/thumbnails/5f807341-e5f2-49c1-b2ba-b035c45fa1b6.jpgCUG-China: Biomining Efficient Specific Treasure (B.E.S.T.) (2024) - Team Presentation [English]**Title:** Biomining Efficient Specific Treasure (B.E.S.T.) **Description:** Biomining is an emerging technology that is sustainable and environmentally friendly, but its long leaching cycle and low efficiency make it difficult to apply in industrial production. Some species are not adapted to treat ores at the speed required for economic metal recovery, and these drawbacks are related to the physiological limitations of biomining microorganisms. Therefore, the modification of the chassis cells of biomining to achieve high leaching efficiency and metal extraction productivity has become the focus of current research work. [Wiki](https://2024.igem.wiki/cug-china) | [Official Page](https://teams.igem.org/5323)https://static.igem.org/peertube/streaming-playlists/hls/b45d6a66-f717-4652-83ef-89ce1cf409c4/729f8da5-11dd-49c1-b3d4-97a8c6b0202f-master.m3u8https://video.igem.org/videos/embed/ogMLQ6Rzn3dpNr527Pg6vW7090362024-10-10T03:11:54.883ZYES2024 PresentationsNOhttps://video.igem.org/w/nw1SNrDVw21g4fkrndKiKHhttps://video.igem.org/lazy-static/thumbnails/78ef9484-7e64-423f-94ef-3bc523d5d3c1.jpgUNC-ChapelHill: UNC Fluorofighters (2024) - Team Presentation [English]**Title:** UNC Fluorofighters **Description:** At UNC-Chapel Hill, we aim to develop a therapeutic that focuses on pharmacological applications to regulate PFAS concentrations, specifically PFOA, in the body. We focus on designing a novel approach to eliminate this contaminant from the body by engineering a chimeric protein with two domains: one with a high affinity for PFOA and the other facilitating transcytosis of the whole peptide. [Wiki](https://2024.igem.wiki/unc-chapelhill) | [Official Page](https://teams.igem.org/5192)https://static.igem.org/peertube/streaming-playlists/hls/ae40c3c5-c8bf-4ca5-a46c-ad3aeb783ca3/1c1ea836-f37f-4378-89e8-fcabc6e1533e-master.m3u8https://video.igem.org/videos/embed/nw1SNrDVw21g4fkrndKiKH7970472024-10-10T03:20:02.023ZYES2024 PresentationsNOhttps://video.igem.org/w/iFnNASLz6qB2aM6PpT4u1xhttps://video.igem.org/lazy-static/thumbnails/f75c8bfa-ee3d-4802-8387-9d2b48af2960.jpgCAU-China: N. Factory-An intelligent microaerobic biofactory with endless possib... (2024) - Team...**Title:** N. Factory-An intelligent microaerobic biofactory with endless possibilities **Description:** Over a third of the world's population can't afford healthy diets due to poverty, trapped in a dilemma between low income and malnutrition. Nodule Factory produces nutrients with rhizobia, innovatively addressing both issues. In this video, we will tell you about our N. Factory-an intelligent microaerobic biofactory with endless possibilities. Utilizing the natural microaerobic environment of nodules, we've engineered rhizobia to produce high-value and microaerobic substances like DHA and EPA, traditionally sourced from fish oil. This video introduces the circuits we designed for substrate increase, synthesis and suicide, especially their precise regulatory systems. You can see the complementarity of modeling and experimentation. Our team has also developed a software, POMPC, for the iGEM community to predict yield. Our Human Practices work is guided by solving the dual dilemma and is committed to making Nodule Factory responsible and beneficial to the world. Overall, our modular N. Factory will pioneer sustainable and microaerobic production, significantly contributing to global sustainability. [Wiki](https://2024.igem.wiki/cau-china) | [Official Page](https://teams.igem.org/5300)https://static.igem.org/peertube/streaming-playlists/hls/8f2acd15-f0a3-4ebc-86d0-0d814f279757/c7d536f3-6e8c-4381-9b4f-0327fb162a3b-master.m3u8https://video.igem.org/videos/embed/iFnNASLz6qB2aM6PpT4u1x85952542024-10-10T03:23:38.803ZYES2024 PresentationsNOhttps://video.igem.org/w/kfUqKBQBestg1oPLXdTTykhttps://video.igem.org/lazy-static/thumbnails/251169ac-dbbd-4ec1-a6a0-2f384f38f410.jpgPekingHSC: Curmino - UAA Incorporated Bacterial Therapy to Fight Rectal Cancer (2024) - Team Pres...**Title:** Curmino - UAA Incorporated Bacterial Therapy to Fight Rectal Cancer **Description:** Cancer is a major global public health issue. Bacterial therapy has attracted much attention due to its ability to colonize and proliferate specifically in the tumor microenvironment (TME). As an amyloid protein, CsgA can be secreted and form fiber structure on the surface of E. coli. By combining Genetic Code Expansion (GCE) technology, we tried to insert the Unnatural Amino Acid (UAA) Tet v2.0 into CsgA. In the principle of click chemistry, prodrug TCO-Dox would site-specific release in the TME, thus effectively killing tumor cells. With the potential to improve efficacy and reduce side effects, this innovative strategy provides new possibilities for cancer treatment. [Wiki](https://2024.igem.wiki/pekinghsc) | [Official Page](https://teams.igem.org/5231)https://static.igem.org/peertube/streaming-playlists/hls/9bf25b40-d6a0-4014-9ee8-477b5e4f2817/91ce336c-52a3-447a-b72a-d9ce537ec4fc-master.m3u8https://video.igem.org/videos/embed/kfUqKBQBestg1oPLXdTTyk8990602024-10-10T03:24:11.040ZYES2024 PresentationsNOhttps://video.igem.org/w/v9SRF3dHy8hHvqWW5mr67ehttps://video.igem.org/lazy-static/thumbnails/f73e1cb5-91a4-427f-9b38-e0e60190b2b6.jpgKFUPM-Saudi-Arabia: Thermoguard (2024) - Team Presentation [English]**Title:** Thermoguard **Description:** In this video, we will take you through the details of our project, thermoguard. There are concerning reports of rising resistance to traditional antibiotics. This current resistance situation raises concerns about a post-antibiotic era in which antimicrobial treatment is no longer an option. Topical antibiotics are usually the option of treatment in patients with mild to moderate SSTIs, whereas surgical intervention, oral, or intravenous broad-spectrum antibiotics are required in severe cases. AMPs are promising candidates for the treatment of skin infections. They are part of the innate immunity of all living organisms including bacteria. Antimicrobial peptides display major advantages compared to conventional antibiotics. Besides their broad-spectrum activity, they show a different mode of action which does not involve specific protein binding sites but rather, involves multiple bacteria cellular targets. This mechanism makes resistance development rather unlikely. To validate our result and develop thermoguard, we used two approaches: Bioinformatics analysis and Synthetic biology. [Wiki](https://2024.igem.wiki/kfupm-saudi-arabia) | [Official Page](https://teams.igem.org/5519)https://static.igem.org/peertube/streaming-playlists/hls/ec16500c-6e2b-4437-ad2a-f8dddd697345/6578793d-cb60-4c19-a130-8a6d2f7b1405-master.m3u8https://video.igem.org/videos/embed/v9SRF3dHy8hHvqWW5mr67e8880292024-10-10T03:31:26.398ZYES2024 PresentationsNOhttps://video.igem.org/w/x4zE6CNeAzoXqDe9okXjSohttps://video.igem.org/lazy-static/thumbnails/cfbc5417-5ab2-4a2e-8cae-d16c525d1e96.jpgUlink-SZ: CaraCOS: To produce versatile COS from waste carapace with the applica... (2024) - Team...**Title:** CaraCOS: To produce versatile COS from waste carapace with the application of dual-enzyme synergistic catalysis **Description:** The accumulation of shrimp and crab carapaces waste poses serious environmental hazards. Despite the potential to convert these chitin-rich materials into high-value chitooligosaccharides (COS), the scarcity and high cost of recycling technologies mean that these carapaces are often overlooked. By selecting from Bacillus species and site-directed mutating, we will obtain high-activity chitin deacetylases (CDA) and chitosanases (CsnB) and improve the enzymatic method to produce COS from chitin, thereby enhancing the recycling and utilization of waste carapaces. [Wiki](https://2024.igem.wiki/ulink-sz) | [Official Page](https://teams.igem.org/5520)https://static.igem.org/peertube/streaming-playlists/hls/fb8b4583-912a-4708-b951-bd2ee3aaf5fa/36751d07-8a14-4755-97ef-cfcd462daf1b-master.m3u8https://video.igem.org/videos/embed/x4zE6CNeAzoXqDe9okXjSo8310402024-10-10T03:29:46.326ZYES2024 PresentationsNOhttps://video.igem.org/w/6yFqTqGLLQXTHK28oNDcA7https://video.igem.org/lazy-static/thumbnails/92e4da14-1745-48b9-afa3-87ec265a8419.jpgUVU-Utah-2: Engineering Chlamydomonas reinhardtii to fight toxic cyanobacterial ... (2024) - Team...**Title:** Engineering Chlamydomonas reinhardtii to fight toxic cyanobacterial blooms by Phosphorus and Nitrogen sequestration **Description:** Excess nutrient loading in Utah Lake is causing increased eutrophication, which leads to increased cyanobacterial blooms that produce toxins hazardous to human, animal, and aquatic life. The excess nutrients are composed mostly of nitrogen and phosphorous compounds that enter the lake primarily from wastewater treatment plants, runoff fertilizer, and naturally occurring within inorganic environmental resources. Our Solution: Reduce the nutrient load of wastewater entering the lake by engineering a harmless organism to sequester phosphorus and convert nitrogenous compounds to atmospheric nitrogen, which is biologically inert. We chose the microalgae Chlamydomonas reinhardtii as the chassis for the genetically engineered machine. A second, long-term goal would be to turn the sequestered nutrients into a marketable product. [Wiki](https://2024.igem.wiki/uvu-utah-2) | [Official Page](https://teams.igem.org/5078)https://static.igem.org/peertube/streaming-playlists/hls/2d0dcb00-5804-4782-b377-bdc085a783ee/9dc14818-0177-4fd0-98d3-a6c29e876ea0-master.m3u8https://video.igem.org/videos/embed/6yFqTqGLLQXTHK28oNDcA78990372024-10-10T03:42:45.683ZYES2024 PresentationsNOhttps://video.igem.org/w/wMYJi6KAv6iotcLkDSJwoWhttps://video.igem.org/lazy-static/thumbnails/f968d058-e177-420b-8498-69b6a3226d48.jpgTianjin: Toward the COSMIC Dream: Space ‘Tai Chi’ (2024) - Team Presentation [English]**Title:** Toward the COSMIC Dream: Space ‘Tai Chi’ **Description:** With the rapid development of aerospace technology, our human beings have a growing desire for space exploration. For astronauts, there are still some tricky problems: The first coming, circadian rhythm disorder. As a consequence of microgravity condition, there is circulatory disorder and daily mission may be carried on inefficiently. Limited space, resource and reserve are also the challenges we have to tackle with. Thus its essential to develop space life support synbiomanufacturing one step further. So what's the answer to solve astronauts problems and develop astro-biomanufacturing? Synthetic biology, modified yeast factory: a better solution! ‘Space Tai Chi’，which is inspired by Chinese traditional culture! Our ultimate goal is to construct a ‘super yeast factory’ which is capable of producing various chemicals and act as new quality productive forces in space. In the promising future, life support system based on synbiomanufacturing will escort human exploration of the cosmic world safe and sound! [Wiki](https://2024.igem.wiki/tianjin) | [Official Page](https://teams.igem.org/5370)https://static.igem.org/peertube/streaming-playlists/hls/f95d970f-1adb-4cfa-854c-59ac1ece44fa/53508eac-0447-4b45-828b-f0ba5ccc7a0a-master.m3u8https://video.igem.org/videos/embed/wMYJi6KAv6iotcLkDSJwoW8980182024-10-10T03:45:50.725ZYES2024 PresentationsNOhttps://video.igem.org/w/oHE15RGnd62sVMjZowWSsqhttps://video.igem.org/lazy-static/thumbnails/730ef081-13f0-4ef0-9111-4d38af7165aa.jpgConcordia-Shanghai: BHBetter: Alternate Pathway of Ketone Ester Synthesis (2024) - Team Presentat...**Title:** BHBetter: Alternate Pathway of Ketone Ester Synthesis **Description:** In recent years, many have lauded the health benefits associated with a ketogenic diet. Evidence demonstrates that ketone bodies such as d-β-hydroxybutyrate (BHB) can induce pleiotropic effects resulting in benefits to physical and metabolic health. However, strict adaptation to the ketogenic diet is difficult, while the ingestion of ketone salts, the current most common ketone-based supplement, has been linked with gastrointestinal complications as well as other issues relating to the ingestion of high levels of minerals. Our project BHBetter, aims to produce BHB, a natural ketone ester produced by the liver using biological parts, which could be used as a main ingredient in athletic drinks. Our work can provide a pathway for producing a safe biological alternative to a high fat, low carbohydrate ketogenic diet, and a way to achieve ketosis without the need for dietary carbohydrate restriction. This video explains our goals, our design and engineering process, and our project results. [Wiki](https://2024.igem.wiki/concordia-shanghai) | [Official Page](https://teams.igem.org/5165)https://static.igem.org/peertube/streaming-playlists/hls/b7f9f6dd-1f9a-426a-90cd-e1dbaaa92f54/90dfe998-3e1b-47d1-b3d7-fb32bca42ac7-master.m3u8https://video.igem.org/videos/embed/oHE15RGnd62sVMjZowWSsq8990472024-10-10T03:52:47.365ZYES2024 PresentationsNOhttps://video.igem.org/w/mzShbmnGwn2JP6pFekBABXhttps://video.igem.org/lazy-static/thumbnails/4272462b-fe5a-4ba4-8566-dde7acc50e04.jpgIISER-Kolkata: E.solei - Team IISER Kolkata (2024) - Team Presentation [English]**Title:** E.solei - Team IISER Kolkata **Description:** This is the presentation video for the iGEM 2024 Team of IISER Kolkata [Wiki](https://2024.igem.wiki/iiser-kolkata) | [Official Page](https://teams.igem.org/5425)https://static.igem.org/peertube/streaming-playlists/hls/a6b14d98-6af2-4ef3-9e57-b4ac2396dbf5/4d6441e5-2f78-4992-ba64-fab423559100-master.m3u8https://video.igem.org/videos/embed/mzShbmnGwn2JP6pFekBABX8990712024-10-10T03:51:36.244ZYES2024 PresentationsNOhttps://video.igem.org/w/tmUZSgpqu4YRv4bHzGedhbhttps://video.igem.org/lazy-static/thumbnails/16bd3ab6-0273-40eb-a135-ceef0eca9990.jpgHKUST-GZ: Utilising Chromoprotein Expression to Counteract Coral Bleaching: An I... (2024) - Team...**Title:** Utilising Chromoprotein Expression to Counteract Coral Bleaching: An Innovative Light and Temperature Apporach **Description:** Coral bleaching, exacerbated by rising sea temperatures and intense light exposure, threatens the survival of coral reefs worldwide. Existing solutions often lack scalability or interfere with coral physiology. We, offers an innovative synthetic biology approach to enhance coral resilience. We engineer the symbiotic bacteria Endozoicomonas to express a light-shielding chromoprotein in response to environmental stressors. This protein reduces excessive light reaching zooxanthellae, the photosynthetic algae within corals, thereby mitigating oxidative damage without disrupting essential cellular functions. By incorporating a regulated genetic circuit sensitive to heat and light, we ensure the chromoprotein is produced only under stress conditions, preserving normal coral and bacterial activity otherwise. This strategy mimics the natural protective effects observed in turbid waters, where reduced light intensity lessens bleaching events. Our solution aims for sustainable, long-term integration into coral ecosystems, offering a scalable method to combat coral bleaching induced by both high temperatures and intense light. [Wiki](https://2024.igem.wiki/hkust-gz) | [Official Page](https://teams.igem.org/5280)https://static.igem.org/peertube/streaming-playlists/hls/dd9247bc-0f2c-493c-97bb-335e62f51bc2/1144235b-9cbb-4ae8-a607-fe99c8207c6a-master.m3u8https://video.igem.org/videos/embed/tmUZSgpqu4YRv4bHzGedhb8610422024-10-10T03:57:38.091ZYES2024 PresentationsNOhttps://video.igem.org/w/ppJK2F4oqGZipQsWdra3wMhttps://video.igem.org/lazy-static/thumbnails/c10c3882-6dac-46c1-9e38-3f704b037b44.jpgAix-Marseille: BAC'ATTACK (2024) - Team Presentation [English]**Title:** BAC'ATTACK **Description:** BAC'ATTACK is an innovative tool designed to combat plant viruses. This system can specifically detect viruses circulating in aphid vectors and eliminate virus-carrying aphids that pose a threat to spreading the virus across a field. It consists of a VIRBAC detection system (Virus Binding Activation Complex) expressed in Bacillus subtilis within the insect’s microbiome, and the METALE system (Modulate Expression of Toxins And Lytic Enzymes), which aims to kill the aphid by secreting perforating toxins into its gut. BAC'ATTACK respects biodiversity by targeting only virus-carrying aphids, safeguards farmers' health by avoiding chemical substances, and is cost-effective for users. [Wiki](https://2024.igem.wiki/aix-marseille) | [Official Page](https://teams.igem.org/5422)https://static.igem.org/peertube/streaming-playlists/hls/bd92a2f2-22ca-4d85-af2b-63110d262b39/85e82e34-603c-4d66-ac45-12ac6b7d967b-master.m3u8https://video.igem.org/videos/embed/ppJK2F4oqGZipQsWdra3wM8580362024-10-10T04:24:40.966ZYES2024 PresentationsNOhttps://video.igem.org/w/mzoQ7gg6ZPvoMMbxr1kkLNhttps://video.igem.org/lazy-static/thumbnails/056b0996-1c2d-4ed1-ab84-609ece52425f.jpgNUDT-CHINA: K-night: a designer cell-based drug screening platform for MTNR1A ag... (2024) - Team...**Title:** K-night: a designer cell-based drug screening platform for MTNR1A agonist discovery **Description:** In light of an increasingly aging population, numerous of individuals are experiencing insomnia symptoms precipitated by endocrine imbalances. Intensifying pressures and escalating workloads are also disrupting adults’ natural sleep patterns. Insomnia caused by circadian rhythm disorders have emerged as a significant health conundrum. Melatonin is widely recognized as the first-line treatment for insomnia, but excessive consumption can lead to adverse effects like headache and dizziness. Notably, MTNR1A receptors paly a more directly role in regulating circadian rhythms, whereas MTNR1B participate in various physiological activities. A drug specifically targeting the MTNR1A is needed to treat insomnia caused by circadian rhythm disorders. Inspired by synthetic biology principles, an innovative small molecule drug screening platform has been developed. This platform introduces a novel exogenous melatonin signaling pathway, enabling the screening potential MTNR1A agonists and natural essential oils that activate melatonin receptors. Our project provides a robust foundation for developing therapeutic agents targeting insomnia. [Wiki](https://2024.igem.wiki/nudt-china) | [Official Page](https://teams.igem.org/5267)https://static.igem.org/peertube/streaming-playlists/hls/a6a06302-81c0-498b-bbdf-45e43caacb2a/6f0abe0a-79d9-408f-b076-ae2e3f3aa042-master.m3u8https://video.igem.org/videos/embed/mzoQ7gg6ZPvoMMbxr1kkLN7960962024-10-10T05:37:31.378ZYES2024 PresentationsNOhttps://video.igem.org/w/4gB87Qfn1VM36Y9XQJMYVLhttps://video.igem.org/lazy-static/thumbnails/133db0d7-b12d-479a-b305-1e424627c341.jpgSDU-Denmark: EndoERαSE - Erasing Endometriosis, Restoring Lives (2024) - Team Presentation [English]**Title:** EndoERαSE - Erasing Endometriosis, Restoring Lives **Description:** With EndoERαSE we aim to create a minimally invasive treatment for endometriosis. This is accomplished by using a plasmid to induce apoptosis in endometriotic tissue while leaving the endometrial tissue unharmed. The project was inspired by previous iGEM projects working with endometriosis, such as LactoBack, ENDOSeek, and UteRus. Each of these projects decided to tackle the issue in different ways. Our team found several issues with preexisting treatment methods, including laparoscopy - which is both a treatment- and diagnostic tool, hormone treatment - such as birth control -, and painkillers. While laparoscopy has been proven to be able to reduce pain in patients suffering from endometriosis, it is an invasive surgery that has a 36% chance of requiring further surgery. Birth control has also been linked to several side effects such as anxiety, irregular periods, and weight gain. Lastly, there is evidence which suggests, that painkillers might be ineffective against pains resulting from the disease. On our journey to creating a minimally invasive and non-hormonal treatment, we found studies that showed that estrogen receptor β (ERβ) was upregulated by >100 times in endometriotic cells while estrogen receptor α (ERα) was downregulated. Both receptors are regulated by the hormone estrogen. When estrogen binds to these receptors, they form a complex of dimerized receptors and estrogen. They relocate into the nucleus, where they can bind to ERβ and ERα promoters, which will activate the transcription of certain genes. [Wiki](https://2024.igem.wiki/sdu-denmark) | [Official Page](https://teams.igem.org/5253)https://static.igem.org/peertube/streaming-playlists/hls/1a7937b9-95d4-4616-ac1d-91259ec25d76/b4c5a23f-52c6-4f1a-a2e2-374326bde114-master.m3u8https://video.igem.org/videos/embed/4gB87Qfn1VM36Y9XQJMYVL8635332024-10-10T04:22:04.413ZYES2024 PresentationsNOhttps://video.igem.org/w/xAvJtxZSxAdeHHXmLKSgKXhttps://video.igem.org/lazy-static/thumbnails/2b1546c5-dbbd-4553-aea2-4efadebf5da5.jpgAachen: OncoBiotica - Microbiota-Directed Cancer Therapy (2024) - Team Presentation [English]**Title:** OncoBiotica - Microbiota-Directed Cancer Therapy **Description:** OncoBiotica aims to revolutionize the way we approach cancer treatment by offering a novel target for future therapies: the microbiota within tumors. Initially focused on colorectal cancer, this method represents a significant advancement in precision oncology, offering more personalized and effective treatments to a broader range of patients. [Wiki](https://2024.igem.wiki/aachen) | [Official Page](https://teams.igem.org/5033)https://static.igem.org/peertube/streaming-playlists/hls/ffdce8eb-229d-4258-a75b-63b2a5469991/545cd805-9895-4539-a8f1-a3140582ea8b-master.m3u8https://video.igem.org/videos/embed/xAvJtxZSxAdeHHXmLKSgKX88507992024-10-10T04:13:53.363ZYES2024 PresentationsNOhttps://video.igem.org/w/veCnpjQ6KGdtwYVBqN1xq7https://video.igem.org/lazy-static/thumbnails/e5135a07-3ddb-4e6f-ba82-727f25a6bde3.jpgHamburg: reSkin - Protein-based hydrogel dressings for burn wound treatment (2024) - Team Present...**Title:** reSkin - Protein-based hydrogel dressings for burn wound treatment **Description:** With 11 million people affected and 180,000 deaths annually, burn wounds are a severe problem in world health. Dead tissue is a natural breeding ground for potentially pathogenic bacteria, resulting in life-threatening wound infections. There is a broad range of different treatment methods, which often cause a lot of pain for the patient and are very complex to apply. With “reSkin”, we are developing a unique biological wound dressing to minimize pain and infections for burn patients. The hydrogel is made by cross linking the Protein Resilin found in insects and Hyaluronic Acid which are both manufactured using synthetic biology. We are also introducing our new method “Repeatigo” in which we present a new approach to the cloning of repetitive sequences using the alignment of oligos. This method led us to our plasmid pET28c+ containing 64 resiln repeats which we nominate as best composite part. In this video we show why our hydrogel is important, explain our approach in the lab and why it all matters! [Wiki](https://2024.igem.wiki/hamburg) | [Official Page](https://teams.igem.org/5077)https://static.igem.org/peertube/streaming-playlists/hls/ecc01a74-be7e-4155-920d-983e1d0593f2/616f1e7a-6e4d-412e-b0d0-dab319d0c7aa-master.m3u8https://video.igem.org/videos/embed/veCnpjQ6KGdtwYVBqN1xq78655742024-10-10T04:15:12.410ZYES2024 PresentationsNOhttps://video.igem.org/w/gKaguHVeNyzSBC6rPdyinxhttps://video.igem.org/lazy-static/thumbnails/23998596-2e3d-4856-aa4e-accc65d449bb.jpgCSW-UD: ThermoGro: Increasing The Thermostability of RuBisCO Activase for Increa... (2024) - Team...**Title:** ThermoGro: Increasing The Thermostability of RuBisCO Activase for Increased Crop Yield **Description:** As global temperatures increase, human populations rise, and food insecurity worsens, there is a need for immediate action to sustain humanity. Scientists aim to increase crop yield to battle the current circumstances, focusing on improving RuBisCO, a key enzyme in photosynthesis. However, they often overlook RuBisCO’s chaperone RuBisCo activase (RCA), creating thermal limitations. The activase regulates the activity of RuBisCO by removing inhibitory sugar phosphates, RuBP, from RuBisCO's active sites to maintain RuBisCO’s catalytically active form. While RuBisCO is thermostable at temperatures above the optimal carbon dioxide assimilation rate, RCA is highly heat-sensitive, so our project aims to enhance RCA's heat resistance. To detect the heat-sensitive regions of RCA, we used machine learning (MutCompute) and implemented point mutations. Though we were unable to use our assays due to time constraints, our research serves as a strong foundation for further study on this topic. [Wiki](https://2024.igem.wiki/csw-ud) | [Official Page](https://teams.igem.org/5478)https://static.igem.org/peertube/streaming-playlists/hls/7f7fc5e9-d88a-49eb-b322-59b53d6d3125/60b94c27-33b9-449a-b0b9-8833276a1383-master.m3u8https://video.igem.org/videos/embed/gKaguHVeNyzSBC6rPdyinx5470282024-10-10T04:16:13.761ZYES2024 PresentationsNOhttps://video.igem.org/w/g3afFgVf4MPyYmypXjLX4Mhttps://video.igem.org/lazy-static/thumbnails/95c25af9-e0e6-4131-b853-15f33b70813c.jpgCHINA-HUBU-WUHAN: One-for-All Synbiotic Therapy（OAST） (2024) - Team Presentation [English]**Title:** One-for-All Synbiotic Therapy（OAST） **Description:** Zymomonas mobilis is a strain of bacteria that can produce beneficial substances for the intestine itself. In other words, in the future, non patients can continue to take our designed drugs. In a healthy state without related diseases, Zymomonas mobilis can maintain people's intestinal health. However, once there are relevant disease signals in the body, our strain will play a corresponding therapeutic role, helping people start treatment as early as possible and suppress disease signals in the initial stage. [Wiki](https://2024.igem.wiki/china-hubu-wuhan) | [Official Page](https://teams.igem.org/5211)https://static.igem.org/peertube/streaming-playlists/hls/79c64514-0ba7-4b59-bd39-e14331a10eb7/da2a237c-0ebb-492b-b830-a411c16a2ce2-master.m3u8https://video.igem.org/videos/embed/g3afFgVf4MPyYmypXjLX4M8980342024-10-10T04:27:38.008ZYES2024 PresentationsNOhttps://video.igem.org/w/wfrVPTQMSM86L5r2FpQq2Fhttps://video.igem.org/lazy-static/thumbnails/d5bdd3c2-1ecb-4d41-82bd-87bfccbdb239.jpgTuebingen: Cluster Control (2024) - Team Presentation [English]**Title:** Cluster Control **Description:** ClusterControl is a web-based platform designed to optimize and predict chimeric regulatory proteins by identifying functional rewiring points. This project involves modular transcriptional regulators, focusing on domain swapping strategies to create new signal-output connections using the LuxR family of Helix Turn Helix regulators as a proof of concept. [Wiki](https://2024.igem.wiki/tuebingen) | [Official Page](https://teams.igem.org/5486)https://static.igem.org/peertube/streaming-playlists/hls/f4f68d21-bd12-4a44-9922-b2f83d00bfd1/4fca342b-fef0-4f91-900c-ba054f492390-master.m3u8https://video.igem.org/videos/embed/wfrVPTQMSM86L5r2FpQq2F7030102024-10-10T04:36:18.242ZYES2024 PresentationsNOhttps://video.igem.org/w/5ejvVszewphgnq2UsY2afjhttps://video.igem.org/lazy-static/thumbnails/33d9af82-69ea-4149-84aa-252c5381b103.jpgHKU-HongKong: CAR_Ma (2024) - Team Presentation [English]**Title:** CAR_Ma **Description:** With a 77% increase in global cancer incidence rate by 2050, cancer have emerged as one of the most detrimental and fatal problem humanity faces. Yet, modern cancer therapeutics like chemotherapy, radiotherapy and surgery each have their fatal limitations, while all failing to address the formidable tumour microenvironment around solid tumours. To tackle a multi-faceted enemy, a multi-modal weapon is required. Our 2024 project builds on our 2023 idea, developing a novel multi-modal RNA immunotherapeutic that harnesses the promising CAR (chimeric antigen receptor) constructs to target solid tumours. The same single RNA also encodes a CRISPR gene editing or RNAi system to address pathways abused for immune evasion and a TMP variable switch system, all packaged in a safe lipid or protein nanoparticle system. All this combines into a long-term, non-integrative, controllable, cheap and accessible in-vivo immunotherapeutic delivered via injection, that can target various solid tumour cancers. [Wiki](https://2024.igem.wiki/hku-hongkong) | [Official Page](https://teams.igem.org/5062)https://static.igem.org/peertube/streaming-playlists/hls/2240a26c-d8c4-4e00-a3a6-816abbd256ea/d0d284fb-31ed-4dc0-89f6-1fa3b151fa89-master.m3u8https://video.igem.org/videos/embed/5ejvVszewphgnq2UsY2afj8920662024-10-10T04:40:43.574ZYES2024 PresentationsNOhttps://video.igem.org/w/i8wAekeUyUcyZfuHxAHy2Khttps://video.igem.org/lazy-static/thumbnails/143be5ed-6b1c-4bef-a55e-36e8245e0089.jpgCHINA-FUZHOU: From Longan to Cosmetics —The Green Mystery of Astaxanthin (2024) - Team Presentati...**Title:** From Longan to Cosmetics —The Green Mystery of Astaxanthin **Description:** This video introduces the efforts made by our team to solve the problems of good application of astaxanthin in cosmetics and current social dilemmas and contradictions, focusing on biological experiments, data models, education communication, and social contributions. [Wiki](https://2024.igem.wiki/china-fuzhou) | [Official Page](https://teams.igem.org/5385)https://static.igem.org/peertube/streaming-playlists/hls/8ab86a5c-5d44-4924-b7e2-29456e19e60d/4117fed1-364e-4282-be9f-cd2e96a0f084-master.m3u8https://video.igem.org/videos/embed/i8wAekeUyUcyZfuHxAHy2K8830122024-10-10T04:54:41.533ZYES2024 PresentationsNOhttps://video.igem.org/w/pgoXbxvUHKTbNfuE3fNPQqhttps://video.igem.org/lazy-static/thumbnails/fe9b6e54-90cd-4b22-bf8f-83648c0adadc.jpgNJTech-China: "Gut Guardian" - A Probiotic Escherichia coli Nissle 1917 That Can... (2024) - Team...**Title:** "Gut Guardian" - A Probiotic Escherichia coli Nissle 1917 That Can Sense and Treat IBD **Description:** Inflammatory bowel disease (IBD) is a chronic intestinal inflammation of unknown etiology and incurable nature. This project utilizes Escherichia coli Nissle 1917 as the chassis cell, employing six functional modules to address IBD. The sensing module, regulated by the SoxR/SoxS promoter, detects excessive NO, ensuring that the gene circuit is activated only in the IBD environment, thereby enhancing safety and specificity. The therapeutic modules include the immune module (PD-L1), adhesion module (Mfp), and antioxidant module (SOD), which are designed to suppress immune responses, repair damaged intestinal tissues, and eliminate reactive oxygen species, respectively. The lysis module automatically lyses probiotic cells upon their accumulation at the inflammation site, releasing therapeutic proteins. The safety module activates the expression of the MazF toxin via a blue light-responsive promoter, ensuring the engineered bacteria die upon excretion, thus mitigating potential risks. [Wiki](https://2024.igem.wiki/njtech-china) | [Official Page](https://teams.igem.org/5322)https://static.igem.org/peertube/streaming-playlists/hls/bc687d73-2dd6-4581-abc2-8fd2d7868764/6aa508c5-cf57-4d9e-bfea-c77fd80728f7-master.m3u8https://video.igem.org/videos/embed/pgoXbxvUHKTbNfuE3fNPQq9000602024-10-10T04:51:38.086ZYES2024 PresentationsNOhttps://video.igem.org/w/deVQf5v1K45a9ufgYjqRvohttps://video.igem.org/lazy-static/thumbnails/f27c2971-983d-4f46-b54b-31b32e30db02.jpgTongji-China: Nailiva: Revolutionizing Nails with Microbial Elegance (2024) - Team Presentation [...**Title:** Nailiva: Revolutionizing Nails with Microbial Elegance **Description:** After an in-depth study of the possible health risks and environmental impacts of existing nail art products, Tongji-China innovatively developed a unique nail art product. By using engineered bacteria to accurately produce enzymatic red, yellow and blue pigments, we have achieved the free expression of colorful patterns, providing users with personalized nail art options. In addition, we have developed a pioneering eco-friendly adhesive material 'AMS', which combines mussel hybrid proteins and hydrogel to not only enhance adhesion, but also improve environmental performance, bringing users a novel, beautiful and healthy nail art experience. [Wiki](https://2024.igem.wiki/tongji-china) | [Official Page](https://teams.igem.org/5298)https://static.igem.org/peertube/streaming-playlists/hls/631f8208-3099-4b98-a90a-a3a51fe1d52c/52ae8b61-d626-4cf7-b3b2-af14257c08aa-master.m3u8https://video.igem.org/videos/embed/deVQf5v1K45a9ufgYjqRvo8990392024-10-10T04:57:20.327ZYES2024 PresentationsNOhttps://video.igem.org/w/ihqhDuGf7LBwML4scgZS6fhttps://video.igem.org/lazy-static/thumbnails/e8926e4a-0b4a-43e2-a969-93fdf890d892.jpgBolivia: Mercurito (2024) - Team Presentation [English]**Title:** Mercurito **Description:** Mercury contamination is a significant environmental and public health issue in Bolivia, specially in the Amazon basin, largely due to gold mining. This directly threatens biodiversity and indigenous communities. Our team approached this problem from all possible angles to understand it and propose a solution. Using synthethic biology we designed an accesible, selective and efficient biosensor. Monitoring contamination is the first step towards a greater resolution of the problem [Wiki](https://2024.igem.wiki/bolivia) | [Official Page](https://teams.igem.org/5257)https://static.igem.org/peertube/streaming-playlists/hls/8bf63995-af56-4817-91e2-dff1dcde66f0/bd8e275d-1d6e-47d5-84ff-c414a1c321e9-master.m3u8https://video.igem.org/videos/embed/ihqhDuGf7LBwML4scgZS6f9000262024-10-10T05:08:55.934ZYES2024 PresentationsNOhttps://video.igem.org/w/kKi6XakRCJTygtZ8nocW7bhttps://video.igem.org/lazy-static/thumbnails/9d235155-5c7e-4af6-9331-d031676d7b30.jpgUFlorida: In Silico and In Vitro Models of Bone Marrow Pathophysiology in a Sept... (2024) - Team...**Title:** In Silico and In Vitro Models of Bone Marrow Pathophysiology in a Septic State **Description:** Considering the global impact of sepsis and our limited understanding its underlying mechanisms, the UFlorida iGEM team investigated bone marrow pathophysiology through the development of in vitro and in silico induced pluripotent stem cell-derived bone marrow organoid models. The UFlorida Wet Lab team optimized the biomanufacture of bone marrow organoids to recapitulate the organ ex vivo. The Dry Lab team developed a computational model in NetLogo to study the bone marrow’s cellular response to infectious stimuli. These dual-pronged ex vivo models lay the groundwork for the in-depth study of the bone marrow’s response to sepsis to enhance our foundational knowledge of this critical state. [Wiki](https://2024.igem.wiki/uflorida) | [Official Page](https://teams.igem.org/5469)https://static.igem.org/peertube/streaming-playlists/hls/9fe92810-a8fe-4304-b2b9-1cd276124776/85d67b72-019b-40b7-ba12-2c0e756e622f-master.m3u8https://video.igem.org/videos/embed/kKi6XakRCJTygtZ8nocW7b9000232024-10-10T05:23:14.722ZYES2024 PresentationsNOhttps://video.igem.org/w/sQwAWUNgQLcsAap9aYMYDWhttps://video.igem.org/lazy-static/thumbnails/1c089c12-38af-4bcf-82c6-d1613b15c603.jpgBoston-BOSLab: Boston-Boslab: Ecorin (2024) - Team Presentation [English]**Title:** Boston-Boslab: Ecorin **Description:** The reliance on porcine-derived heparin poses significant risks, including contamination, supply chain volatility, and ethical concerns. Our team engineered a novel, scalable bacterial system using E. coli Nissle 1917 to biosynthesize heparin. By introducing key enzymes involved in the heparin biosynthesis pathway, we enable E. coli to produce heparin from its naturally occurring precursor, Heparosan. This personalized approach eliminates contamination risks from similar polysaccharides while ensuring a reliable supply of high-purity heparin. Our design not only addresses the ethical and religious concerns surrounding porcine products but also offers a sustainable alternative for global heparin production. [Wiki](https://2024.igem.wiki/boston-boslab) | [Official Page](https://teams.igem.org/5254)https://static.igem.org/peertube/streaming-playlists/hls/d9542a64-aed9-4fba-ba7d-af6f3166e020/3a19b402-4c34-4e1c-bdcb-cd8842363943-master.m3u8https://video.igem.org/videos/embed/sQwAWUNgQLcsAap9aYMYDW9000742024-10-10T04:35:56.491ZYES2024 PresentationsNOhttps://video.igem.org/w/obV79V67pvTEJRDSUYX2iphttps://video.igem.org/lazy-static/thumbnails/f92186ef-ac22-4ccb-925a-6c44c21e4380.jpgLeiden: Affordable Library-based Pipeline for Accelerated Creation of single-dom... (2024) - Team...**Title:** Affordable Library-based Pipeline for Accelerated Creation of single-domain Antibodies **Description:** Nanobodies offer great potential over traditional antibodies, but their development is often slow, costly, and relies on animal immunisation. To address this, iGEM Leiden 2024 has introduced ALPACA, a faster, animal-free, and cost-effective system. Using yeast surface display and a synthetic nanobody library, ALPACA screens for antigen binding nanobodies, making the process more efficient. This innovative approach streamlines nanobody development and eliminates the need for animal testing. With ALPACA nanobodies could finally reach their potential! [Wiki](https://2024.igem.wiki/leiden) | [Official Page](https://teams.igem.org/5112)https://static.igem.org/peertube/streaming-playlists/hls/b3af374c-cfa3-4785-8c65-f2a8698601ad/0ed2024a-e5ce-46da-affc-bb8be1308abf-master.m3u8https://video.igem.org/videos/embed/obV79V67pvTEJRDSUYX2ip7670792024-10-10T05:14:37.358ZYES2024 PresentationsNOhttps://video.igem.org/w/qkNLDdPeFupSohNakJbAYVhttps://video.igem.org/lazy-static/thumbnails/e0be474a-2f9f-48ad-8ef6-a37aadd01c6a.jpgUNILausanne: Vespa velutina Eradication through gene Silencing and Precise Ai ba... (2024) - Team...**Title:** Vespa velutina Eradication through gene Silencing and Precise Ai based recognition **Description:** The Asian hornet (Vespa velutina), an invasive species introduced in France in 2004, poses a significant threat to pollinators, especially honeybees, impacting biodiversity and food security across Europe. This leads to significant economic losses, underscoring the need for urgent solutions. Our project offers a novel approach: a box equipped with an image recognition software containing a bait inoculated with engineered Lactococcus lactis. The software can distinguish insects and ensures that only the Asian hornet is granted access to the bait. When the bait is consumed by the larvae, the bacteria delivers shRNA to disrupt key developmental genes via RNA interference. By targeting specific genes, this method minimises harm to other species. And by targeting larvae, this method aims to reduce hornet populations more efficiently than current methods. Our design is efficient, cost-effective, and offers a promising solution to the growing threat of Asian hornets in Europe. [Wiki](https://2024.igem.wiki/unilausanne) | [Official Page](https://teams.igem.org/5047)https://static.igem.org/peertube/streaming-playlists/hls/c51f4845-9ed3-4402-b643-cf0f0713f7fd/4208dadb-21ac-476f-a58a-d2ed8ccf0b7b-master.m3u8https://video.igem.org/videos/embed/qkNLDdPeFupSohNakJbAYV8670592024-10-10T05:30:36.805ZYES2024 PresentationsNOhttps://video.igem.org/w/pwLTMoU933bcp1UaaTzj4Xhttps://video.igem.org/lazy-static/thumbnails/d2ba9dfb-33a9-428f-8599-5ed81de54170.jpgBUAPMX: P-CASE (2024) - Team Presentation [English]**Title:** P-CASE **Description:** Pancreatic Cancer Biosensor [Wiki](https://2024.igem.wiki/buapmx) | [Official Page](https://teams.igem.org/5347)https://static.igem.org/peertube/streaming-playlists/hls/be8e2b1f-c67d-41ca-8d5b-19cfe66c75a5/5490500d-6622-4374-b871-dedc0485a954-master.m3u8https://video.igem.org/videos/embed/pwLTMoU933bcp1UaaTzj4X5300182024-10-10T05:33:08.013ZYES2024 PresentationsNOhttps://video.igem.org/w/mVtJr9swWti6YkDApuUUwBhttps://video.igem.org/lazy-static/thumbnails/97bbffc7-5b76-41b1-a7d0-c0a744c2391e.jpgKULeuven: NeoMineX (2024) - Team Presentation [English]**Title:** NeoMineX **Description:** In the wake of rapid industrialization and modern human activities, our aquatic and terrestrial ecosystems now bear the weight of heavy metal contamination. Industries, along with domestic waste and mining practices, are among the primary contributors, releasing toxic metals that persist in the environment for long periods. These metals enter the food chain through contaminated water and food, posing serious risks to wildlife and human health. Despite advances in remediation, conventional wastewater treatment methods are often inefficient at effectively removing soluble metals, pose risks of secondary pollution, and rely on hazardous chemicals. Our planet’s resources are finite. As population growth and technology drive an increasing demand for metals, we face a critical question: what will we leave the future of humanity with, if we deplete these essential resources? Many of these metals are considered critical due to their economic importance and the risks of supply shortages. Yet, traditional mining practices are not only unsustainable but also contribute to environmental degradation and resource depletion. Moreover, these practices force over a million children into unsafe labor conditions, depriving them of education and endangering their health and future. To address these challenges, we propose our project “NeoMineX”: an innovative biomining strategy that enables the removal of heavy metals from wastewater, while recovering these metals to recycle and reintegrate into the production cycle. [Wiki](https://2024.igem.wiki/kuleuven) | [Official Page](https://teams.igem.org/5060)https://static.igem.org/peertube/streaming-playlists/hls/a96e4881-5514-47cf-a6ee-39ce0fb1697f/ce882cb0-acd8-4b66-b5f1-c01c18847608-master.m3u8https://video.igem.org/videos/embed/mVtJr9swWti6YkDApuUUwB8380652024-10-10T05:46:49.038ZYES2024 PresentationsNOhttps://video.igem.org/w/qavZsTc9vjKnMWPiLVSMgwhttps://video.igem.org/lazy-static/thumbnails/991653fa-25a4-4e1d-8179-113fd13dc2e1.jpgWilliam-and-Mary: SaPh:IRES (Satellite Phage Integrated Real World Engineering S... (2024) - Team...**Title:** SaPh:IRES (Satellite Phage Integrated Real World Engineering Solutions) **Description:** As synthetic biology advances from the lab to real-world environments, it is in need of novel parts, circuits, and devices that increase levels of control in unpredictable, complex conditions. Satellite phages present a vast ensemble of unexplored machinery with the potential to meet these emerging needs. Our project, SaPh:IRES (Satellite Phage: Integrated Real-world Engineering Solutions), addresses the significant foundational gap by pursuing two key objectives: developing novel identification tools for satellites both bioinformatically and experimentally, and utilizing their unique mechanisms to address specific issues in synthetic biology. To do so, we use different phage satellite systems in mycobacteria and E. coli for three specific applications: sequence-specific population level control, overcoming prophage immunity, and increasing phage host range. We test our concepts in silico with the first of its kind mathematical model, in vitro, and in situ in simulated real-world environments to showcase their functionality at different levels of complexity. [Wiki](https://2024.igem.wiki/william-and-mary) | [Official Page](https://teams.igem.org/5179)https://static.igem.org/peertube/streaming-playlists/hls/c3af8114-f563-41d2-9d43-5d0970a26638/91f3ed98-b0be-43ce-9c6c-447fc6f71662-master.m3u8https://video.igem.org/videos/embed/qavZsTc9vjKnMWPiLVSMgw89701012024-10-10T05:47:49.362ZYES2024 PresentationsNOhttps://video.igem.org/w/xv7tQzZ12zxJAMVqTZfuqNhttps://video.igem.org/lazy-static/thumbnails/efae7676-3c61-4521-ba47-8c770e632fe7.jpgNortheastern-Boston: NuScent: Revolutionizing Composting with Synthetic Biology (2024) - Team Pre...**Title:** NuScent: Revolutionizing Composting with Synthetic Biology **Description:** Discover how the NuScent team is using synthetic biology to transform composting. By engineering bacteria to produce pleasant scents like mint and lavender, we’re making composting more accessible and appealing while promoting sustainable food waste management. [Wiki](https://2024.igem.wiki/northeastern-boston) | [Official Page](https://teams.igem.org/5426)https://static.igem.org/peertube/streaming-playlists/hls/ff1bdc78-0f9c-4542-9357-923ae61baeae/36c7ad3e-8e74-4846-b9b8-5ba3efa078ce-master.m3u8https://video.igem.org/videos/embed/xv7tQzZ12zxJAMVqTZfuqN7760172024-10-10T05:51:16.488ZYES2024 PresentationsNOhttps://video.igem.org/w/2v9UoXxV9voUvVKBArFuZ8https://video.igem.org/lazy-static/thumbnails/d34a5585-5f43-41ce-8d17-6cd59052951b.jpgSZ-SHD: Manipulate Astrobiology for Revolutionary Synthetic-Survival(MARSS) (2024) - Team Present...**Title:** Manipulate Astrobiology for Revolutionary Synthetic-Survival(MARSS) **Description:** Mars is a potential destination for human migration. However, future explorers will face significant challenges, including the lack of natural food resources and oxygen, toxic and poor soil for crop production, and limited synbio toolkit. We proposed solutions across four key areas inspired by a series of human practices. First, to provide sustainable nutrition, we aim to co-culture engineered yeast and cyanobacteria to produce essential compounds such as lycopene, nerol, and limonene. Second, to convert Martian soil into arable land, we isolated nitrogen-fixing bacteria and used directed evolution to enhance bacteria’s resistance to Martian toxins. Third, we introduced updates to our TTTT system, released in 2023, which now reduces plant transformation time by up to 50%, encouraging more iGEM participants to engage in plant synthetic biology. Finally, as a creative endeavor, we applied DNA data storage to archive significant records of Earth's biodiversity and culture for future generations. [Wiki](https://2024.igem.wiki/sz-shd) | [Official Page](https://teams.igem.org/5308)https://static.igem.org/peertube/streaming-playlists/hls/0c2b31e4-590d-453b-b119-f0901960f409/ef1da723-d610-4956-8606-32cd4ec41f85-master.m3u8https://video.igem.org/videos/embed/2v9UoXxV9voUvVKBArFuZ88100352024-10-10T06:09:08.562ZYES2024 PresentationsNOhttps://video.igem.org/w/ijSwPtpxXy5iqFk7LoC6dzhttps://video.igem.org/lazy-static/thumbnails/e790a311-bdb6-4ebe-8ecd-7fb7360eee23.jpgPuiChing-Macau: Improving quality and quantity of essential oil extraction using... (2024) - Team...**Title:** Improving quality and quantity of essential oil extraction using engineered E. coli **Description:** Essential oils have been used widely in daily life products (such as shampoo and soap). Currently, 93% of essential oils are extracted with steam distillation. While this method does not involve toxic chemicals, the yield of essential oil extraction is very low, usually less than 2% of the plant materials. Previous studies identified enzymes which could break down plant cell walls, increasing yield and preserving the quality of the oils. However, these enzymes are not stable during the boiling-hot steam distillation. We here used various engineered E. coli to produce thermostable enzymes (pectinase and cellulase) which allowed substantial enzyme activities during steam distillation, and significantly improved the yield. In addition, we produced lipases to esterify extracted oils, which enhanced their anti-bacterial properties. We also interacted with multiple industrial and academic partners, filed a patent, and designed hardware and models to ensure our project could be launched to the market shortly. [Wiki](https://2024.igem.wiki/puiching-macau) | [Official Page](https://teams.igem.org/5193)https://static.igem.org/peertube/streaming-playlists/hls/8c4de2d9-988c-453d-ace8-68b4030d310d/5ecd9ff1-0c05-4816-86fc-da5b93be7f0f-master.m3u8https://video.igem.org/videos/embed/ijSwPtpxXy5iqFk7LoC6dz8040272024-10-10T06:13:27.685ZYES2024 PresentationsNOhttps://video.igem.org/w/6RGWTjHkpcAdqN5qrS3z2chttps://video.igem.org/lazy-static/thumbnails/2a83d967-38dc-4fb6-9201-1d545890515a.jpgDelNorte-SD: Biofilm Busters (2024) - Team Presentation [English]**Title:** Biofilm Busters **Description:** To develop methods using synthetic biology, genetic engineering solutions to address Cutibacterium acnes associated acneiform skin lesions, specifically by genetically altering E. coli to secrete PFK1 an enzyme that will degrade the EPS polysaccharide that is the main component of its biofilm. [Wiki](https://2024.igem.wiki/delnorte-sd) | [Official Page](https://teams.igem.org/5369)https://static.igem.org/peertube/streaming-playlists/hls/2f6e5f40-85eb-4aa1-bc52-021e91d79df9/407d02ae-183b-4e36-bba0-f45f5a1c4f83-master.m3u8https://video.igem.org/videos/embed/6RGWTjHkpcAdqN5qrS3z2c8100472024-10-10T06:22:06.883ZYES2024 PresentationsNOhttps://video.igem.org/w/313zUfpBVDNE5vLF1PZEMfhttps://video.igem.org/lazy-static/thumbnails/8e2fe8cf-4b76-428c-a460-4215a1b089f4.jpgHZAU-China: Bacillus Gemini: Plant Guard＆ Nematode Buster (2024) - Team Presentation [English]**Title:** Bacillus Gemini: Plant Guard＆ Nematode Buster **Description:** Nematode infestations are among the most destructive pathogens in agriculture. According to estimates by FAO of the United Nations, global losses in food and fiber crops due to nematode damage amount to approximately 12.3% annually. We have engineered Bacillus velezensis and Bacillus subtilis as chassis organisms based on their own characteristics. These bacteria work in concert to enhance plant immunity and exert nematocidal effects. Using Bacillus subtilis, we employ virus-like particles conjugated with immune-activating proteins through spontaneous covalent coupling. They can widely distribute from the plant's roots to the phyllosphere, serving to activate the plant's own immune response induction. Bacillus velezensis can detect changes in the level of phytohormones (salicylic acid) produced by plants in response to nematode damage. Upon sensing the signaling stimulation, the engineered bacteria are capable of producing antinematodal proteins, trans-aconitic acid, and antisense RNAs targeting important genes in nematode's life cycle, attacking nematodes from multiple aspects. [Wiki](https://2024.igem.wiki/hzau-china) | [Official Page](https://teams.igem.org/5335)https://static.igem.org/peertube/streaming-playlists/hls/1033debd-1997-4e43-bbb5-c9c799f7f530/520dc643-24e7-4740-939f-cd4f12332462-master.m3u8https://video.igem.org/videos/embed/313zUfpBVDNE5vLF1PZEMf8250492024-10-10T06:31:24.249ZYES2024 PresentationsNOhttps://video.igem.org/w/hrqWFMPA6EYwir2vSgVmSBhttps://video.igem.org/lazy-static/thumbnails/f83fd7d0-abd9-42d8-8af7-480c29a38f8d.jpgGeorgiaState-SWJTU: Eliminating Plastic Pollution: Enhancing Biodegradable Plast... (2024) - Team...**Title:** Eliminating Plastic Pollution: Enhancing Biodegradable Plastic Production through Algae-E. coli Co-culture Systems **Description:** In this video, we present the current experiments and progress of our project. We introduce and demonstrate our work from three aspects: background, experimental group, and human practice & education. In the background section, we explain the dangers of plastic pollution, state the purpose of this project, and then outline the overall rationale behind it. Furthermore, we focus on the experimental group, presenting the ideas and results of the experiments related to PHB production, acetate knockout, ethanol resistance, biosafety, and modeling. Additionally, we highlight the social and educational activities we have undertaken to demonstrate the social significance of our project. [Wiki](https://2024.igem.wiki/georgiastate-swjtu) | [Official Page](https://teams.igem.org/5410)https://static.igem.org/peertube/streaming-playlists/hls/851f2f34-847a-4b92-ba12-c6696b1dc47f/f1035aab-a447-4493-817b-09532c88b6a1-master.m3u8https://video.igem.org/videos/embed/hrqWFMPA6EYwir2vSgVmSB9000392024-10-10T06:44:48.810ZYES2024 PresentationsNOhttps://video.igem.org/w/pmk7PiqAoe3KDA6PjenLo9https://video.igem.org/lazy-static/thumbnails/6c6aee96-5043-4e74-a9d8-9e5a8e890c39.jpgHUBU-China: Plastid-Mediated RNAi: A Novel Approach for Pest Control (2024) - Team Presentation [...**Title:** Plastid-Mediated RNAi: A Novel Approach for Pest Control **Description:** Discover our groundbreaking method using RNA interference (RNAi) to manage the common cutworm, Spodoptera litura. This video provides an overview of our project, including the design of artificial microRNAs (amiRNAs) targeting the chitin synthase 1 gene (SlCHS1) and the use of virus-like particles (VLPs) for efficient delivery. Learn how our approach can protect crops and ensure food security. [Wiki](https://2024.igem.wiki/hubu-china) | [Official Page](https://teams.igem.org/5044)https://static.igem.org/peertube/streaming-playlists/hls/bd18d89e-287e-4cee-b411-46eba5c0a5cc/075cf8e1-f58d-4120-9086-dd1a7c7ff844-master.m3u8https://video.igem.org/videos/embed/pmk7PiqAoe3KDA6PjenLo98610362024-10-10T06:46:53.202ZYES2024 PresentationsNOhttps://video.igem.org/w/4HdDiNMnWs9SypBqLow1Kfhttps://video.igem.org/lazy-static/thumbnails/8491b5a6-e27e-415d-83e9-4aa86eee3ef2.jpgSDU-CHINA: Mechanism of creation and application of prokaryotic polyploid minima... (2024) - Team...**Title:** Mechanism of creation and application of prokaryotic polyploid minimal chassis cells **Description:** In this study, we designed a novel prokaryotic polyploid minimal chassis system capable of stably maintaining both engineered and wild-type chromosomes. Morphological analysis revealed increased length, volume, and surface area in polyploid E. coli, with intracellular enrichment of metabolites like phenylalanine. This system showed enhanced stress resilience under high temperatures and varying pH levels, suggesting potential for evolutionary adaptation. Additionally, the chassis demonstrated improved carbon and protein metabolism, enhancing production of heterologous proteins such as GFP and poly-β-hydroxybutyrate PHB, with output exceeding that of streamlined and wild-type strains. We also developed a genome-scale metabolic network model for DGF-298 and its polyploid counterpart, integrating transcriptomic data to refine growth rates and biomass yield. Multi-objective optimizations within the metabolic model, combined with a deep learning-aided environmental model, enabled real-time PHB production predictions in fermenters via multi-sensor arrays. [Wiki](https://2024.igem.wiki/sdu-china) | [Official Page](https://teams.igem.org/5343)https://static.igem.org/peertube/streaming-playlists/hls/1e0cb3c4-4860-400a-ad96-02c9c19a75dc/d56e0723-3b46-481d-88d3-6dca54116309-master.m3u8https://video.igem.org/videos/embed/4HdDiNMnWs9SypBqLow1Kf9000172024-10-10T06:39:00.252ZYES2024 PresentationsNOhttps://video.igem.org/w/qKzv8Y5p74mpDjw26KmC6whttps://video.igem.org/lazy-static/thumbnails/2d4884a5-23f7-451f-926c-69c278c1c655.jpgLINKS-China: CuraPack: A Novel Antimicrobial First Aid Kit Developed to Combat R... (2024) - Team...**Title:** CuraPack: A Novel Antimicrobial First Aid Kit Developed to Combat Resistant Wound Infections **Description:** The global rise in wars and natural disasters increased the prevalence of wound infections. Moreover, the misuse of antibiotics and their resistance-prone mechanisms of action led to the spread of resistant pathogens that significantly increased the severity of infections, resulting in amputation or death. Current first aid kits do not possess any means of infection prevention other than resistant-prone antibiotic ointments. However, defensins, a family of antimicrobial peptides, possess antimicrobial activity while having lower risks of resistance due to their unique mechanisms of action. This year, we engineered a collection of fusion proteins capable of forming antimicrobial coatings on first aid kit items by attaching domains that could bind to a wide range of first-aid materials to defensins and developing an innovative release mechanism using the SUMO tag. We envision our resistance-free antimicrobial CuraPack to provide protection against infections in diverse scenarios and propagate first aid knowledge throughout the world. [Wiki](https://2024.igem.wiki/links-china) | [Official Page](https://teams.igem.org/5185)https://static.igem.org/peertube/streaming-playlists/hls/c870f4de-590e-4669-9475-d889b4772480/a2631ae6-ead3-4b7a-9a97-f064727d5ac4-master.m3u8https://video.igem.org/videos/embed/qKzv8Y5p74mpDjw26KmC6w8565582024-10-10T06:42:54.647ZYES2024 PresentationsNOhttps://video.igem.org/w/6o24zMi897KJefeQsey86nhttps://video.igem.org/lazy-static/thumbnails/b7737ab5-1dac-449f-a807-12b86ad46179.jpgULethbridge: C.R.O.P.S. A Dual Approach to Combatting Clubroot Disease (2024) - Team Presentation...**Title:** C.R.O.P.S. A Dual Approach to Combatting Clubroot Disease **Description:** This video provides a detailed look at the Lethbridge Collegiate iGEM team's C.R.O.P.S. (Clubroot Oversight and Prevention System) project, designed to address the growing threat of clubroot disease in agriculture. The team showcases their work on two critical fronts: a lateral flow assay for detecting Plasmodiophora brassicae spores in soil and the exploration of engineered bacteria for biopesticide solutions. The video walks through their wet lab experiments, including the optimization of nanobody expression and purification, as well as dry lab molecular dynamics simulations that model protein interactions for precision in design. In addition, the team discusses the practical challenges they faced, how their findings were shaped by industry expert interviews, and their ongoing efforts to create a sustainable, field-ready detection kit. [Wiki](https://2024.igem.wiki/ulethbridge) | [Official Page](https://teams.igem.org/5091)https://static.igem.org/peertube/streaming-playlists/hls/2b90b5e8-57a0-46ca-9045-1d2e9d37f2c3/266958b2-0673-4a36-ac1c-60903d2db350-master.m3u8https://video.igem.org/videos/embed/6o24zMi897KJefeQsey86n7260162024-10-10T06:58:12.640ZYES2024 PresentationsNOhttps://video.igem.org/w/wGcJ7TFAF1Rxy2wwnxM7L8https://video.igem.org/lazy-static/thumbnails/7a41eaac-fc08-46a3-85ab-0158bc85c3d8.jpgBIT-China: OUROBOROS:Orchestrating Unique Recycling of Old Batteries, Reviving O... (2024) - Team...**Title:** OUROBOROS:Orchestrating Unique Recycling of Old Batteries, Reviving Optimal Sustainability **Description:** The climate and energy crisis in the 21st century has catalyzed the growing global demand for lithium-ion batteries(LIBs), while the safety hazards and environmental pollution caused by used LIBs, as well as the scarcity of metal raw materials, make recycling LIBs the optimal choice. Existing LIBs recycling processes are generally characterized by high energy consumption and high pollution. Therefore, we propose to utilize synthetic biology to recover critical metals (lithium, manganese, cobalt, and nickel) from used LIBs. Firstly, the fermentation of A. niger was used to produce organic acids to leach the metal ions; after that, the yeast cell surface was used to display different metal-binding peptides to achieve specific binding of the ions in the leachate and to separate ions; finally, the urease expressed by E. coli was used to promote carbonate precipitation of the four ions. The carbonate can be used as a raw material for the preparation of high-performance LIBs anode, thus realizing the cycle of separation, recovery and reuse of critical metal ions. With low energy consumption, low pollution and high leaching recovery rate, we hope OUROBOROS will become a synthetic biology solution for future LIBs recycling. [Wiki](https://2024.igem.wiki/bit-china) | [Official Page](https://teams.igem.org/5166)https://static.igem.org/peertube/streaming-playlists/hls/f88f231a-37d7-47cc-af6a-11b0caa0e86f/68f0ec43-980c-4d26-a137-23eb9360b851-master.m3u8https://video.igem.org/videos/embed/wGcJ7TFAF1Rxy2wwnxM7L888001092024-10-10T07:15:21.291ZYES2024 PresentationsNOhttps://video.igem.org/w/ngifxCPd5rcEpS6gHs5jBwhttps://video.igem.org/lazy-static/thumbnails/86a57bdd-d1fd-42c9-a958-c470f9bb13d5.jpgBNU-China: NanoDisguiser: Redefining Broad-Spectrum Antiviral Therapy with Nanod... (2024) - Team...**Title:** NanoDisguiser: Redefining Broad-Spectrum Antiviral Therapy with Nanodisc Technology Platform **Description:** Nanodiscs are tiny, disk-shaped structures engineered as drugs, antibodies, or in vitro biological components. Our project introduces a groundbreaking nanodisc-based antiviral therapy, NanoDisguiser, designed to overcome the limitations of viral drug resistance and side effects, provides a powerful broad-spectrum solution to tackle viral subtypes and new mutations. With the conserved host cell viral receptors, these nanodiscs act as decoys, luring and disrupting viruses before they can infect cells. We're working to validate and commercialize this technology as an injectable antiviral solution, aiming to redefine antiviral therapy in a post-pandemic world. [Wiki](https://2024.igem.wiki/bnu-china) | [Official Page](https://teams.igem.org/5301)https://static.igem.org/peertube/streaming-playlists/hls/ac32b317-d95a-427f-aa14-b4a238d2a1b4/bccf9961-2ab1-4233-b2c1-58927ed67367-master.m3u8https://video.igem.org/videos/embed/ngifxCPd5rcEpS6gHs5jBw9000402024-10-10T07:07:30.730ZYES2024 PresentationsNOhttps://video.igem.org/w/k4bNk2YXeCvX5tMZBjN3ohhttps://video.igem.org/lazy-static/thumbnails/6eab992c-1099-4ddd-bfe0-a1fa9775986a.jpgTecMonterreyGDL: AQUASENS - EC-FRET BIOSENSOR FOR EMERGING CONTAMINANTS (2024) - Team Presentatio...**Title:** AQUASENS - EC-FRET BIOSENSOR FOR EMERGING CONTAMINANTS **Description:** By 2050, the global population will grow by 2 billion, increasing pressure on freshwater resources. Currently, agriculture consumes 92% of the world's water, jeopardizing food systems due to rising competition. Wastewater reuse becomes critical, but 80% is not properly treated, and 11% of crops, especially in the Global South, rely on it. In Mexico, only 5.4% of wastewater is reused, with limited research on emerging contaminants. To tackle this issue, we present Aquasens, a portable system that efficiently detects water contaminants using FRET technology. It features a biosensor that identifies changes in fluorescence when contaminants are detected in a sample. In this project, we present lab results using a FRET system to detect rifampicin, cadmium, and ibuprofen, along with a new version of the device from the previous team. We also conducted social activities to raise awareness about Jalisco's water situation and developed a business plan for future commercialization. [Wiki](https://2024.igem.wiki/tecmonterreygdl) | [Official Page](https://teams.igem.org/5439)https://static.igem.org/peertube/streaming-playlists/hls/9a4f8554-a9df-416d-9769-1f156afcd644/490c41f1-92ad-40b8-8a12-3d3a8724b6c4-master.m3u8https://video.igem.org/videos/embed/k4bNk2YXeCvX5tMZBjN3oh7990322024-10-10T07:03:29.448ZYES2024 PresentationsNOhttps://video.igem.org/w/71RKW3t6AEhLF6kXcbXzrrhttps://video.igem.org/lazy-static/thumbnails/ddf5d9ef-f65e-4d32-bb07-f053cba47df9.jpgLIUAN-Nanjing: Enzymatic DNA (2024) - Team Presentation [English]**Title:** Enzymatic DNA **Description:** Welcome to watch our presentation video! This video shows a completed description of our project, including team introduction, synthetic biology, up-to-date technology of enzymatic DNA synthesis, preliminary survey and analysis, detailed explanation of our research, expected goal of our project, human practices work, laboratory safety, engineering cycles, future outlook, contributing parts, awards achievements, member attributions, etc. [Wiki](https://2024.igem.wiki/liuan-nanjing) | [Official Page](https://teams.igem.org/5392)https://static.igem.org/peertube/streaming-playlists/hls/30b57efe-bccb-439b-a372-cd9bfc0930bf/263d2f10-176a-427e-b9c5-6739eb736a40-master.m3u8https://video.igem.org/videos/embed/71RKW3t6AEhLF6kXcbXzrr8260172024-10-10T07:08:08.496ZYES2024 PresentationsNOhttps://video.igem.org/w/hQgFYE21GLrtFNx5JrP7Q9https://video.igem.org/lazy-static/thumbnails/eef1eb99-baa9-4e3e-9fa8-553e7e110a02.jpgVirginia: BLISS: The Bacillus Lipase Integrated Secretion System (2024) - Team Presentation [Engl...**Title:** BLISS: The Bacillus Lipase Integrated Secretion System **Description:** Exocrine Pancreatic Insufficiency (EPI) is a condition where the pancreas fails to produce sufficient digestive enzymes, leading to malnutrition. It is treated with pancreatic enzyme replacement therapy, an oral drug containing porcine-derived pancreatic enzymes. As a more ethical and economic treatment option, we present the Bacillus Lipase Integrated Secretion System (BLISS), a probiotic that secretes synthetic digestive enzymes suitable for the human body. We plan to transform B. subtilis with the human pancreatic lipase and procolipase genes, along with a glucose-mediated switch mechanism for inducible expression. We have also developed a comprehensive model to determine the timescale of enzyme production and secretion. Our device also contains a biocontainment mechanism to prevent the device from functioning in unintended environments. In addition to our wet lab efforts, our team has developed a comprehensive educational handbook as a synthetic biology resource for the homeschooled community. Watch this presentation video to learn more about what Virginia iGEM 2024 has accomplished! [Wiki](https://2024.igem.wiki/virginia) | [Official Page](https://teams.igem.org/5178)https://static.igem.org/peertube/streaming-playlists/hls/884f969f-392e-4603-99dd-7b70f6a23068/24ed5ce7-9c84-4560-b750-dff8c9173279-master.m3u8https://video.igem.org/videos/embed/hQgFYE21GLrtFNx5JrP7Q98100292024-10-10T07:30:26.732ZYES2024 PresentationsNOhttps://video.igem.org/w/envrUwtNHbVrUUTY58N4pVhttps://video.igem.org/lazy-static/thumbnails/e054f343-4bf8-4f0d-9bb4-4500e2e17ba8.jpgSUSTechOCEAN: Electrosynthetic Photosynthetic Biomineralizers: A Microbial Triad... (2024) - Team...**Title:** Electrosynthetic Photosynthetic Biomineralizers: A Microbial Triad for Carbon Capture **Description:** Shewanella captures and converts CO2 into formic acid via extracellular electron uptake (EEU) in microbial electrosynthesis. Vibrio Natrigens, uses carbonic anhydrase (CA), CARPs, and calcite-binding peptides (Cabp-Chbd) to mineralize CO2 into calcium carbonate. Cyanobacteria convert CO2 into sucrose through photosynthesis, providing an additional carbon source to support Vibrio growth. A specialized hardware system enables co-cultivation of these three microorganisms to efficiently capture and store CO2 through mineralization. [Wiki](https://2024.igem.wiki/sustechocean) | [Official Page](https://teams.igem.org/5397)https://static.igem.org/peertube/streaming-playlists/hls/6c4791a2-e407-488f-9a32-56bd3e770f77/40e129b3-9c69-499e-9548-ebcf3d7283c7-master.m3u8https://video.igem.org/videos/embed/envrUwtNHbVrUUTY58N4pV8690222024-10-10T07:47:55.445ZYES2024 PresentationsNOhttps://video.igem.org/w/sSodPuLvnwTZb82NYdhybbhttps://video.igem.org/lazy-static/thumbnails/20a871c1-d5f2-45a1-9f61-e98530732e1e.jpgSMU-GDMU-CHINA: Liver-Brain Guardian: Engineering Bacteria to prevent Hepatic en... (2024) - Team...**Title:** Liver-Brain Guardian: Engineering Bacteria to prevent Hepatic encephalopathy **Description:** Hepatic encephalopathy (HE) , which develops from liver cirhosis, causes increasing mortality worldwide and places huge burden on patients and the society. However, preventing HE has been challenging, with medication mainly focus on alleviating syptoms after developing HE and have long-term side effects. Here, we demonstrate a synthetic biology-inspired probiotic therapeutic, Liver-Brain Guardian, to automatically respond to the level of HE biomarker and initiate the degradation of HE pathogenic factor, and could improve intestinal barrier function and epithelial recovery. Our results showed that the engineered bacteira(EcN) can successfully sense the rising level of PEA, a reliable risk factor in HE patients , and activate the FeaR-TynA inducible promoter system to initiate the downstream metabolic module to degrade ammonia. Our approach offers an exciting and promising way to help cirrhosis patients with high risk of developing HE from progressing and start in-time treatment. [Wiki](https://2024.igem.wiki/smu-gdmu-china) | [Official Page](https://teams.igem.org/5378)https://static.igem.org/peertube/streaming-playlists/hls/d9967ce3-8b4b-4aea-970b-6c1374db920e/d1561e54-4fd9-43db-8806-5053a165627e-master.m3u8https://video.igem.org/videos/embed/sSodPuLvnwTZb82NYdhybb7950322024-10-10T07:49:55.521ZYES2024 PresentationsNOhttps://video.igem.org/w/23QuNr1zyCNJ1zU9coSKLohttps://video.igem.org/lazy-static/thumbnails/22c60282-9655-481f-99d8-3a45b5823e84.jpgNU-Kazakhstan: SanaGel: Targeted ductal carcinoma bacteriotherapy (2024) - Team Presentation [Eng...**Title:** SanaGel: Targeted ductal carcinoma bacteriotherapy **Description:** SanaGel is an innovative targeted ductal carcinoma bacteriotherapy developed using synthetic biology, ​​molecular biology, and materials science methods. The system comprises non-pathogenic Escherichia coli genetically engineered to produce a tumor-targeting peptide that selectively binds cell surfaces of cancer cells and forms pores, leading to tumor cell burst and eradication. For efficient export of the drug from bacterial cells, it was fused with a signaling peptide, NSP4. Aside from the peptide's specificity, we have implemented a Kill Switch (Suicide Gene) to ensure higher levels of safety control. Modified bacteria are encapsulated into agarose and chitosan-based hydrogel scaffolds, which solidify upon temperature rise after the intratumoral injection. Due to the careful fine-tuning of the gel's pores and sol-gel transition temperatures, hydrogels minimize bacterial leakage and ensure local action of the system. The project has the potential of opening the door to the development of novel sustainable cancer therapeutics that are not only efficient but also exhibit reduced systemic side effects on the healthy cells of patients. [Wiki](https://2024.igem.wiki/nu-kazakhstan) | [Official Page](https://teams.igem.org/5129)https://static.igem.org/peertube/streaming-playlists/hls/087e8365-819b-4d7b-b520-a84f7c93752a/7a6dfc47-2acf-4b94-a6b3-eb5fa2ce1511-master.m3u8https://video.igem.org/videos/embed/23QuNr1zyCNJ1zU9coSKLo7630372024-10-10T07:51:54.324ZYES2024 PresentationsNOhttps://video.igem.org/w/2o1CyJtb3o93qxxkYFKB8Thttps://video.igem.org/lazy-static/thumbnails/1fbd1541-b248-4b61-92cb-64099a83501f.jpgHunanU: Click Virus - Viral Chassis Ready for Customerization (2024) - Team Presentation [English]**Title:** Click Virus - Viral Chassis Ready for Customerization **Description:** Click Virus is a groundbreaking synthetic biology project that utilizes engineered vaccinia virus (VACV) and connects with custom-designed molecules through click chemistry, offering safety, convenience, and comprehensive therapeutic potential. The HunanU team collaborates across various groups to seamlessly integrate HP activities, publicity, computer operations, and experimental components, ultimately successfully completing our project. Click Virus will lead the way for synthetic biology to promote the widespread application of click chemistry technology in the biomedical field and other interdisciplinary areas in the future. [Wiki](https://2024.igem.wiki/hunanu) | [Official Page](https://teams.igem.org/5142)https://static.igem.org/peertube/streaming-playlists/hls/0b2be3de-3f9b-4e3d-b3f1-219d85c97e1d/d9c06012-3f4c-469f-804c-594e3455fbba-master.m3u8https://video.igem.org/videos/embed/2o1CyJtb3o93qxxkYFKB8T9000342024-10-10T08:03:48.718ZYES2024 PresentationsNOhttps://video.igem.org/w/m63JoYr4Zb3CGYR8fRRPcPhttps://video.igem.org/lazy-static/thumbnails/54a2485c-8629-4dfc-b99b-2cd9d3cb34fe.jpgJLU-China: Design and Application of Recombinant Human Serum Albumin for Enhance... (2024) - Team...**Title:** Design and Application of Recombinant Human Serum Albumin for Enhanced NIR-II Imaging Probes **Description:** Our project focuses on developing an optimized near-infrared II (NIR-II) imaging probe using a recombinant human serum albumin (rHSA) mutant. By mutating the cysteine residue at position 476 to glycine (C476G), we successfully disrupted the disulfide bond between Cys476 and Cys487, exposing a reactive thiol group. This modification significantly enhances the covalent binding efficiency between rHSA and NIR-II dyes, particularly the Cn-1080 family (such as CO-1080). Our research includes computational simulations and experimental validation, demonstrating improved binding affinity, stability, and imaging performance in deep tissues, such as the blood-testis and blood-brain barriers. The probe simplifies preparation under mild conditions and has broad applications in biomedical imaging, tumor surgery navigation, and diagnostics. This novel approach offers a robust and reproducible solution for advancing NIR-II imaging in complex biological environments. [Wiki](https://2024.igem.wiki/jlu-china) | [Official Page](https://teams.igem.org/5209)https://static.igem.org/peertube/streaming-playlists/hls/a2ab2cd1-4186-44be-be26-4f540ada3301/8665d49b-8c30-43c1-a000-d6dbb6303294-master.m3u8https://video.igem.org/videos/embed/m63JoYr4Zb3CGYR8fRRPcP8000172024-10-10T09:38:06.811ZYES2024 PresentationsNOhttps://video.igem.org/w/fkUxfe79p5rQ9bbq4WSeF4https://video.igem.org/lazy-static/thumbnails/eeac8c56-7653-4982-a2cd-f72707663ae8.jpgWHU-China: Intestide (2024) - Team Presentation [English]**Title:** Intestide **Description:** Small peptides possess notable attributes. However, existing methods for delivering short peptides into the intestine remain constrained. Our proposed design encompasses three modules—Secretion, Adhesion, and Biosafety—and involves two strains of engineered bacteria: peptide producers and controllers. The Secretion module is present in the peptide producer strain. This module features a transmembrane protein, integrated into the outer membrane of E. coli. Synthesis of small peptides occurs in conjunction with this transmembrane protein, enabling their delivery into the surrounding environment. Both the peptide producer and controller strains incorporate the Adhesion module, which employs two adhesins capable of binding to each other. This arrangement results in the formation of a strain-layered matrix that securely adheres to the intestinal lining. The biosafety module comprises two distinct components within two strains. Based on a reciprocal activation principle, this module regulates the population dynamics of two strains to ensure optimal small peptide production. [Wiki](https://2024.igem.wiki/whu-china) | [Official Page](https://teams.igem.org/5048)https://static.igem.org/peertube/streaming-playlists/hls/74277374-d26b-4efc-8fa9-80b918a552bd/e2395cb7-4cb0-4c49-a98c-a749c3fe3860-master.m3u8https://video.igem.org/videos/embed/fkUxfe79p5rQ9bbq4WSeF48940422024-10-10T10:23:18.876ZYES2024 PresentationsNOhttps://video.igem.org/w/sqMm7g7h6stRftdS41zr9ihttps://video.igem.org/lazy-static/thumbnails/985a654f-6f33-4ec3-8749-335d00a4973b.jpgFSU: EsperSense - A Breath of Hope (2024) - Team Presentation [English]**Title:** EsperSense - A Breath of Hope **Description:** Presentation video of the 2024 iGEM@FSU team. [Wiki](https://2024.igem.wiki/fsu) | [Official Page](https://teams.igem.org/5064)https://static.igem.org/peertube/streaming-playlists/hls/d60366ca-a347-4d3e-a0bb-af675723a3ed/aa01afc2-9c6a-44c6-81cc-0d0991664d04-master.m3u8https://video.igem.org/videos/embed/sqMm7g7h6stRftdS41zr9i8970582024-10-10T09:34:11.292ZYES2024 PresentationsNOhttps://video.igem.org/w/4vXDujYZfgAAHoVWQWW1xbhttps://video.igem.org/lazy-static/thumbnails/0ebbbb14-dbfb-4e7f-a713-81272462670e.jpgGEC-China: AgroNeedle: Harnessing Synthetic Biology and Microneedle Technology f... (2024) - Team...**Title:** AgroNeedle: Harnessing Synthetic Biology and Microneedle Technology for Advanced Antimicrobial Solutions in Agriculture **Description:** AgroNeedle integrates synthetic biology with microneedle technology to deliver nutrients, pesticides, and antimicrobial agents directly to plants, revolutionizing agricultural practices. By enabling precise, localized delivery, this approach enhances the efficiency of nutrient and pesticide use while minimizing environmental impact, such as runoff and overuse of chemicals. The microneedles, designed for plant-specific applications, allow controlled release of agrochemicals, promoting sustainable farming practices. Additionally, leveraging synthetic biology enables the incorporation of advanced antimicrobial solutions, targeting plant pathogens effectively while reducing the reliance on traditional chemical treatments, contributing to healthier crops and ecosystems. [Wiki](https://2024.igem.wiki/gec-china) | [Official Page](https://teams.igem.org/5133)https://static.igem.org/peertube/streaming-playlists/hls/1c7a4751-d9c0-40c4-8447-e9386ae620e0/a9dedf7e-332b-4fa8-b5a4-909d1b84aefa-master.m3u8https://video.igem.org/videos/embed/4vXDujYZfgAAHoVWQWW1xb820082024-10-10T10:22:09.763ZYES2024 PresentationsNOhttps://video.igem.org/w/ffjDpi967n7GkuFg5v6aewhttps://video.igem.org/lazy-static/thumbnails/607c4110-b719-480e-9649-a5f788bfdef0.jpgIonis-Paris: CAPsi'RNA - An innovative and sustainable solution to fight against... (2024) - Team...**Title:** CAPsi'RNA - An innovative and sustainable solution to fight against Beet Yellows Virus **Description:** Discover CAP'siRNA, our cutting-edge RNA platform designed to combat the Beet Yellows Virus (BYV) in sugar beets. In this video, we showcase how long interfering RNA precursors are encapsulated in viral capsids, offering a highly specific, efficient, and eco-friendly solution to safeguard crops and boost sugar production. This video covers every details of our project from the laboratory, through software, education, human practices and entrepreneurship. It aims to ensure a comprehensive approach of our project. [Wiki](https://2024.igem.wiki/ionis-paris) | [Official Page](https://teams.igem.org/5055)https://static.igem.org/peertube/streaming-playlists/hls/735fd825-6516-4c99-9474-879460058eac/2a663652-b553-4ed1-9838-bbfbcefd745f-master.m3u8https://video.igem.org/videos/embed/ffjDpi967n7GkuFg5v6aew9000552024-10-10T10:37:56.561ZYES2024 PresentationsNOhttps://video.igem.org/w/nBcjPWfRJ2zD3iWUxGA9tqhttps://video.igem.org/lazy-static/thumbnails/7645f29a-ee86-466e-a3f3-af3104434dff.jpgSMS-Shenzhen: Banavac (2024) - Team Presentation [English]**Title:** Banavac **Description:** Bananas, being triploid and reliant on asexual reproduction, lack genetic diversity, making them highly susceptible to pathogens like Fusarium oxysporum, which threatens entire banana industury. Traditional sterilization methods (sunlight, chemical disinfectants, soil isolation) are ineffective and unsustainable. Instead, our project focuses on coexistence through competition. We genetically modify Fusarium oxysporum by removing the FUB1 toxin gene and introducing the RiCLE symbiotic gene from Rhizophagus irregularis, creating a strain that promotes banana growth while protecting against wild-type pathogens. The modified fungus acts as a vaccine, occupying ecological niches to fend off harmful strains. To prevent biohazard, we designed a kill switch system using tetracycline to control spore production within a specialized fermentation tank. Spores are produced safely. Waste water is disinfected with disinfectant and air is disinfected with filter membrane and UV light, ensuring controlled and bio-safe application. Our final product is a spore suspension kit with dry spore powder. [Wiki](https://2024.igem.wiki/sms-shenzhen) | [Official Page](https://teams.igem.org/5169)https://static.igem.org/peertube/streaming-playlists/hls/aef9ec3f-2d7e-44d3-96f6-e923edf8fe86/5ae1f2e2-7117-49c8-aa1a-69f7616a09dc-master.m3u8https://video.igem.org/videos/embed/nBcjPWfRJ2zD3iWUxGA9tq8940332024-10-10T09:36:50.721ZYES2024 PresentationsNOhttps://video.igem.org/w/6QBrzE2mjTEQZc3ZrpQAAihttps://video.igem.org/lazy-static/thumbnails/1b45424a-fa07-4136-b076-902740e0bb58.jpgDUT-China: Cure of Hepatitis B Based on High Precision CRISPR (2024) - Team Presentation [English]**Title:** Cure of Hepatitis B Based on High Precision CRISPR **Description:** Viral hepatitis B is a common infectious disease affecting the world, the cause of which is hepatitis B virus (HBV) infection and induced autoimmune reaction. HBV cannot be eradicated with traditional chemical treatments, but it is possible with the safety-enhancing CRISPR-Cas gene editing tool. Aiming at curing hepatitis B with CRISPR-Cas gene editing technology, our project mainly carried out the following work: (1) Taking HBsAg gene of hepatitis B virus as the gene editing target, we use the screening model of E. coli to screen out 1 on-target sequence from 33 candidates designed based on the HBsAg gene. According to the on-target sequence, we designed the gRNA of MAD7 and the off-target for subsequent off-target detection. (2) A library containing 660 MAD7 mutants was constructed by zero-shot mutational effect prediction and error-prone PCR. A high-precision and high-activity MAD7 nuclease mutant (HF-MAD7) was screened out by high-throughput screening. The off-target rate decreased from 99.02% to 3.17%, and the editing efficiency was 59.51% of that of WT. The project provides a reliable gene editing therapy for viral hepatitis B. [Wiki](https://2024.igem.wiki/dut-china) | [Official Page](https://teams.igem.org/5339)https://static.igem.org/peertube/streaming-playlists/hls/2f473c4e-baea-49a3-8d8e-2fb75be0055d/180049e0-169d-4550-aaea-284812a0757a-master.m3u8https://video.igem.org/videos/embed/6QBrzE2mjTEQZc3ZrpQAAi8990212024-10-10T10:24:37.055ZYES2024 PresentationsNOhttps://video.igem.org/w/wYT4upoXGp18xTeJwjzuozhttps://video.igem.org/lazy-static/thumbnails/2798097a-c41a-4e2f-a7bc-d6b6d028d03d.jpgIOANNINA: "ATROPOS" A CRISPR Cas13 Anti-Viral Therapy for WNV induced enchephalitis (2024) - Team...**Title:** "ATROPOS" A CRISPR Cas13 Anti-Viral Therapy for WNV induced enchephalitis **Description:** We are iGEM IOANNINA 2024, an interdisciplinary team of undergraduate and PhD students from the University of Ioannina, aspiring to tackle the encephalitis induced by WNV infection through our project: “ATROPOS”. West Nile Virus (WNV) is a neuroinvasive pathogen responsible for severe encephalitis, with no specific antiviral treatment currently available. In this study, we propose an innovative antiviral strategy utilizing the RNA-targeting Cas13d system to combat WNV-induced encephalitis. Our approach involves designing guide RNAs (gRNAs) through a custom algorithm, tailored to efficiently target WNV RNA sequences. To enhance the safety and specificity of the Cas13d system, we integrate a regulatory mechanism involving a synthetic NFAT (nuclear factor of activated T-cells). This engineered NFAT ensures that Cas13d expression is induced only upon viral infection, leveraging the calcium influx triggered by WNV entry, which activates endogenous NFAT signaling. By linking the antiviral response to WNV-specific cellular changes, this system minimizes off-target effects and reduces the risk of unintended immune activation. This regulated antiviral platform holds potential as a novel therapeutic approach for treating WNV-induced neurological disorders. Our effort is illustrated through dedication, hard work and above all passion, all driven by a single goal: To bring our vision to life and make a meaningful impact on the world around us. We believe that iGEM and science extend far beyond the strict boundaries of competition and are about much more than just conducting experiments in the lab. This is why we organised several events and wanted to make science a part of society. We are iGEM IOANNINA and with Atropos we are changing the Fate's design! [Wiki](https://2024.igem.wiki/ioannina) | [Official Page](https://teams.igem.org/5490)https://static.igem.org/peertube/streaming-playlists/hls/fae34722-386e-4506-9ca2-e70a82f69c15/ef75104c-dede-4094-a548-aff3929bf2ff-master.m3u8https://video.igem.org/videos/embed/wYT4upoXGp18xTeJwjzuoz8960642024-10-10T10:11:59.297ZYES2024 PresentationsNOhttps://video.igem.org/w/7MeiekN3TZBgRYZdYJXqDihttps://video.igem.org/lazy-static/thumbnails/7009fb7c-81fd-43e1-9680-75c023ce22cf.jpgPLKLFC: PCas-Detect & Kill Prostate Cancer in one fell swoop (2024) - Team Presentation [English]**Title:** PCas-Detect & Kill Prostate Cancer in one fell swoop **Description:** Prostate cancer is often diagnosed only after symptoms appear, and existing screening methods tend to be either costly or unreliable. Our goal is to develop a new, affordable, and user-friendly screening technique that also targets and eliminates prostate cancer cells. We use PSMA as a biomarker to detect these cells, and a plasmid that triggers the release of Gaussia Luciferase (Gluc) in the patient's urine. Additionally, the plasmid promotes the release of an apoptosis regulator (BAX) to help kill the cancer cells. Another important aspect of our project is education. We have created a lesson plan aimed at sparking junior secondary students’ interest in synthetic biology and encouraging their future involvement in the field. Teaching these students in September also provides us with valuable insights from them. [Wiki](https://2024.igem.wiki/plklfc) | [Official Page](https://teams.igem.org/5441)https://static.igem.org/peertube/streaming-playlists/hls/36e77f08-474e-4948-8fc7-0038148e798b/2face827-cd68-4a70-b70a-603ba593e6c8-master.m3u8https://video.igem.org/videos/embed/7MeiekN3TZBgRYZdYJXqDi8870622024-10-10T11:03:37.453ZYES2024 PresentationsNOhttps://video.igem.org/w/pJ1sH1w6hW5rKnUumtAmHhhttps://video.igem.org/lazy-static/thumbnails/602a0351-a178-4cdd-8625-d62462324c01.jpgTokyoTech: Modules for Optimized Viability and Efficacy of RNA pesticides (MOVE) (2024) - Team Pr...**Title:** Modules for Optimized Viability and Efficacy of RNA pesticides (MOVE) **Description:** Pesticides play a crucial role in modern food production. However, current chemical pesticides face various challenges, including environmental changes due to climate change, the issue of resistant species, and their impact on the environment. RNA pesticides, which use the principle of RNA interference, are gaining attention as a means to address these problems associated with chemical pesticides. However, their low durability in natural environments poses a barrier to practical application. MOVE is a module that encapsulates RNA within membrane vesicles, which are surface-presented by functional proteins. Through MOVE, the effective duration of RNA pesticides is extended, maximizing the impact of the RNA. We are pioneering the future of agriculture by doing the following: MOVE RNA pesticides, MOVE pest control, MOVE agriculture. [Wiki](https://2024.igem.wiki/tokyotech) | [Official Page](https://teams.igem.org/5269)https://static.igem.org/peertube/streaming-playlists/hls/c01fb617-3f92-4e5f-91ae-55dbaece82aa/3659bdd3-6189-412c-879f-eb50def8e975-master.m3u8https://video.igem.org/videos/embed/pJ1sH1w6hW5rKnUumtAmHh8300552024-10-10T10:51:22.479ZYES2024 PresentationsNOhttps://video.igem.org/w/p7QPC6KvTWV65YMfVF1YFEhttps://video.igem.org/lazy-static/thumbnails/11657ac3-f49c-4982-8db4-2a86e1721930.jpgIIT-ROORKEE: SugarCare: Red Rot disease detection in sugarcane plants (2024) - Team Presentation ...**Title:** SugarCare: Red Rot disease detection in sugarcane plants **Description:** The presence of ITS rDNA sequences specific to Colletotrichum Falcatum, the pathogen causing red rot in Sugarcane, can be detected in the soil (before plantation) and infected plants far before visible symptoms appear. This allows for timely intervention, enabling farmers to take action to manage and contain the disease before it spreads extensively. Our innovative and cost-effective diagnostic approach uses a simple soil sample from the field or a leaf/stem sample from the sugarcane plant and an aptamer-based biosensor. Enclosed in a compact device, the sensor can be easily operated by anyone with minimal training. The accessibility and rapid results make our diagnostic kit a valuable tool for the early detection and management of red rot in Sugarcane, providing an efficient alternative to traditional diagnostic methods. [Wiki](https://2024.igem.wiki/iit-roorkee) | [Official Page](https://teams.igem.org/5493)https://static.igem.org/peertube/streaming-playlists/hls/bb36bd25-b758-403b-8663-b99a4ee80c6c/e2899859-b058-4f3e-a03d-03fbfeea2d40-master.m3u8https://video.igem.org/videos/embed/p7QPC6KvTWV65YMfVF1YFE7500272024-10-10T11:36:46.557ZYES2024 PresentationsNOhttps://video.igem.org/w/cqXciDq7L3aZWYr72LdTmzhttps://video.igem.org/lazy-static/thumbnails/1769b62e-3855-4cee-bdf4-af893e6c155e.jpgSZU-China: SWEETEIN: Recombinant Thaumatin Made in Tomato Factories as the Futur... (2024) - Team...**Title:** SWEETEIN: Recombinant Thaumatin Made in Tomato Factories as the Future of Sugar Substitutes. **Description:** With increasing concerns over the health risks associated with excessive sugar consumption, the use of sugar substitutes has become widespread. However, recent studies have identified significant safety issues with many common substitutes. In response, the SZU-China team seeks to develop a safer alternative by producing Thaumatin, a natural, highly efficient, and fully digestible sweet protein. We have implemented an innovative production method within tomato fruits, utilizing two key systems: an expression system driven by the fruit-specific and ripening-induced E8 promoter for precise temporal and spatial control of Thaumatin production, and a storage-targeting system that directs Thaumatin to the vacuole using the SPS-NTPP targeting peptide. This approach enables the direct extraction of Thaumatin from tomato juice, eliminating the need for complex purification processes. We have named this product 'Sweetein' and hope it will inspire further advancements in the sugar substitute industry by offering safer, natural alternatives for consumers. [Wiki](https://2024.igem.wiki/szu-china) | [Official Page](https://teams.igem.org/5160)https://static.igem.org/peertube/streaming-playlists/hls/5c90640b-da3c-48ac-8f26-fea77ea7dd15/a43284d6-5956-48bd-ae57-f6ed4e8ec8d5-master.m3u8https://video.igem.org/videos/embed/cqXciDq7L3aZWYr72LdTmz8560722024-10-10T11:41:34.723ZYES2024 PresentationsNOhttps://video.igem.org/w/7ajbgBWb5QzLTT5VQr77KXhttps://video.igem.org/lazy-static/thumbnails/c4201371-68a4-4819-bd9d-08dc936b91ff.jpgHunanU: 点击病毒——易于个性化改造的病毒底盘 (2024) - Team Presentation [Chinese]**Title:** 点击病毒——易于个性化改造的病毒底盘 **Description:** Click Virus是一项突破性的合成生物学项目，利用了工程化的痘苗病毒（VACV），通过点击反应与定制的任意分子连接，兼具安全性、便捷性和治疗的全面性。HunanU队伍各组通力协作，致力于将HP活动、宣传美化、计算机操作与实验部分完美结合，最终成功完成我们的项目。Click Virus将在未来带领合成生物学推动点击化学技术在生物医学领域乃至其他交叉学科领域的广泛应用。 [Wiki](https://2024.igem.wiki/hunanu) | [Official Page](https://teams.igem.org/5142)https://static.igem.org/peertube/streaming-playlists/hls/31e3ba57-9b98-4f41-ac3f-1184e778788d/58f735a9-37a8-4967-ad00-a8c915124b81-master.m3u8https://video.igem.org/videos/embed/7ajbgBWb5QzLTT5VQr77KX782042024-10-10T11:38:51.600ZYES2024 PresentationsNOhttps://video.igem.org/w/8yk5MoSH7FF5RrQBXYpPG3https://video.igem.org/lazy-static/thumbnails/ddadf7ed-e193-4dca-8e97-25340223ec23.jpgCHINA-HUBU-WUHAN: 一菌多效——合生元微生物疗法 (2024) - Team Presentation [Chinese]**Title:** 一菌多效——合生元微生物疗法 **Description:** 在中国古代医学经典著作《黄帝内经》中，有“上工治未病，不治已病”的论述。其英文表达为“Great Physicians Treat Before the Outbreak of an Illness”，意指高明的医生能够在疾病显现之前进行有效治疗。这表明，技艺精湛的医师能够在疾病明显表现出来之前识别并加以干预。运动发酵单胞菌能够产生对肠道本身有益的物质。换句话说，在未来，非患者可以继续服用我们设计的药物。在没有相关疾病的健康状态下，运动发酵单胞菌可以维持人们的肠道健康。然而，一旦体内出现相关疾病信号，我们的菌株将发挥相应的治疗作用，帮助人们尽早开始治疗，在初期抑制疾病信号。 [Wiki](https://2024.igem.wiki/china-hubu-wuhan) | [Official Page](https://teams.igem.org/5211)https://static.igem.org/peertube/streaming-playlists/hls/3d3387ff-939f-4c46-8b49-a9b0dd4daae6/6ff68d31-76fb-4fe9-b9c0-660c4e960ade-master.m3u8https://video.igem.org/videos/embed/8yk5MoSH7FF5RrQBXYpPG3896092024-10-10T11:51:25.206ZYES2024 PresentationsNOhttps://video.igem.org/w/ay3hhHMgVecEFQoEBh2KSihttps://video.igem.org/lazy-static/thumbnails/ff7070c0-10d2-4c5f-8bda-cd3cbe98386a.jpgBotchanLab-Tokyo: Gassle (2024) - Team Presentation [English]**Title:** Gassle **Description:** We have devised Gassle, an E. coli that detects nitric oxide (NO), which is produced in large quantities during inflammation. This research explores the possibility of diagnosing Inflammatory Bowel Disease (IBD) through characteristic fart odors. [Wiki](https://2024.igem.wiki/botchanlab-tokyo) | [Official Page](https://teams.igem.org/5349)https://static.igem.org/peertube/streaming-playlists/hls/4d5b7445-fb4e-47dc-bdd4-b58e61abbaf9/8f463a61-5b6c-4074-82fc-2bb3e7a57046-master.m3u8https://video.igem.org/videos/embed/ay3hhHMgVecEFQoEBh2KSi8980672024-10-10T11:17:29.052ZYES2024 PresentationsNOhttps://video.igem.org/w/9SCnnVXnLBLk95z3UGaVV4https://video.igem.org/lazy-static/thumbnails/4edc4d96-12ae-4bf7-bc4c-21f9728fb0c7.jpgUOregon: Probiotic Approach to Gastrointestinal Infection Treatment (2024) - Team Presentation [E...**Title:** Probiotic Approach to Gastrointestinal Infection Treatment **Description:** Bacterial antimicrobial resistance is a silent pandemic responsible for the deaths of millions of people annually and is a threat that continues to magnify. Our iGEM team at the University of Oregon is developing a probiotic therapeutic to replace antibiotics in the treatment of Gl tract infections. We identified EHEC (Enterohemorrhagic E. coli) as a model bacterium for proof of concept. Our probiotic will specifically recognize EHEC cells and deliver a malicious DNA payload through a type of horizontal gene transfer known as conjugation. [Wiki](https://2024.igem.wiki/uoregon) | [Official Page](https://teams.igem.org/5105)https://static.igem.org/peertube/streaming-playlists/hls/47dab5f1-a840-422d-8675-9c0ae69295e1/3fcd1f13-399e-4880-8433-53ffd4d4a806-master.m3u8https://video.igem.org/videos/embed/9SCnnVXnLBLk95z3UGaVV48990202024-10-10T14:19:24.801ZYES2024 PresentationsNOhttps://video.igem.org/w/rHVLfYzcXWUhbHzG7qmFzJhttps://video.igem.org/lazy-static/thumbnails/dd9222c2-b077-4b4a-ad1e-49da126a07eb.jpgNAIS: AmyloShield: Fortified Sweet Potatoes for Glycemic Control (2024) - Team Presentation [Engl...**Title:** AmyloShield: Fortified Sweet Potatoes for Glycemic Control **Description:** The International Diabetes Federation indicates that in the Western Pacific region, 1 in 8 adults has diabetes. China alone accounts for one-quarter of the world's diabetic population. While treatments and medications are available, there is insufficient focus on prevention and everyday dietary care. To address this issue, we have engineered sweet potatoes, one of the most starch-rich root crops in the world, known for its high yield and strong adaptability. Crops with a higher amylose content are excellent sources of resistant starch, which can lower diabetes risk and promote health. Our goal is to use gene editing technology to knock out the gene responsible for synthesizing amylopectin in sweet potatoes, thereby increasing the amylose content. The high-amylose sweet potatoes will be incorporated into affordable sweet potato flour, biscuits, and cakes to reduce postprandial blood sugar fluctuations, supporting both diabetes prevention and the dietary needs of those affected. [Wiki](https://2024.igem.wiki/nais) | [Official Page](https://teams.igem.org/5399)https://static.igem.org/peertube/streaming-playlists/hls/d04f17ff-5d01-41ff-a299-354f82adf000/b75ec8f4-7848-4c8d-b09b-088401ac3f3b-master.m3u8https://video.igem.org/videos/embed/rHVLfYzcXWUhbHzG7qmFzJ7480102024-10-10T20:18:15.532ZYES2024 PresentationsNOhttps://video.igem.org/w/2iyVif8LuS9GfAsjsbY86phttps://video.igem.org/lazy-static/thumbnails/49613030-03c8-4d6a-a57a-4ef50f48cff6.jpgHBUT-Wuhan: Biomanufacturing of Vglycin (2024) - Team Presentation [English]**Title:** Biomanufacturing of Vglycin **Description:** There are over 540 million people suffering from diabetes mellitus globally. Although numerous medications have been approved to control blood glucose levels, the side effects presents huge challenges for their application. P37, a novel oral hypoglycemic peptide group derived from soybeans, has been shown to improve blood glucose in mice and in clinic. However, direct extraction from soybeans is problematic due to low yields, complex processes and high cost. HBUT-Wuhan plans to use synthetic biology to produce Vglycin (Vg), a member of P37 family that have huge potential to be innovative medicine. Finally, we successfully constructed the GS115 expression system of Vglycin (Vg), , and optimize the parts in the construct to improve its yield. Our findings also indicated that the mutation at position 28 to Ala has stronger affinity with the receptor. In the future we would like to further study the expression of mutational Vg in Pichia pastoris. [Wiki](https://2024.igem.wiki/hbut-wuhan) | [Official Page](https://teams.igem.org/5384)https://static.igem.org/peertube/streaming-playlists/hls/0a8d11db-7108-4fa8-afc8-2f6d21cb5a55/e0f2519b-dc35-4110-84da-b42ab8d235c9-master.m3u8https://video.igem.org/videos/embed/2iyVif8LuS9GfAsjsbY86p7450192024-10-10T14:32:31.124ZYES2024 PresentationsNOhttps://video.igem.org/w/tqVKSXoZw1SeW2o3tHpb8phttps://video.igem.org/lazy-static/thumbnails/b0d65037-e23e-4834-8099-20cbb2702446.jpgWegoTaipei: Rh Block (2024) - Team Presentation [English]**Title:** Rh Block **Description:** With Wet Lab introducing the experiment, Dry Lab describing the design and conversion kit, and Human Practice with the extra activities. [Wiki](https://2024.igem.wiki/wegotaipei) | [Official Page](https://teams.igem.org/5494)https://static.igem.org/peertube/streaming-playlists/hls/de21b912-5962-4476-8235-57d07fe2d29d/6acb47d0-b414-4512-ba5a-6de0cce3261a-master.m3u8https://video.igem.org/videos/embed/tqVKSXoZw1SeW2o3tHpb8p8900262024-10-10T13:29:32.973ZYES2024 PresentationsNOhttps://video.igem.org/w/wDU2rjUNwPUWPALwcYsHumhttps://video.igem.org/lazy-static/thumbnails/d968e3c3-99b4-43e5-a95c-462ee485dc3c.jpgAnatolia-College: Beyond Plastic: Our Battle for a Cleaner Future (2024) - Team Presentation [Eng...**Title:** Beyond Plastic: Our Battle for a Cleaner Future **Description:** This video serves as a timeline: first our inspiration is explained followed by our course of action, which involved synthetic biology and human practices. Attributions are also given to the people and companies that have supported us throughout this journey. [Wiki](https://2024.igem.wiki/anatolia-college) | [Official Page](https://teams.igem.org/5171)https://static.igem.org/peertube/streaming-playlists/hls/f83cbd9e-1381-40e0-a880-108a70c92c20/327c5e6e-a151-4c31-91a0-2df6339ff122-master.m3u8https://video.igem.org/videos/embed/wDU2rjUNwPUWPALwcYsHum9000442024-10-10T14:31:02.663ZYES2024 PresentationsNOhttps://video.igem.org/w/pGfdk8Gp2PfZ9iFrkWMaWohttps://video.igem.org/lazy-static/thumbnails/fc7fb305-147a-4b34-8ef6-211f2566259c.jpgBarcelona-UB: Reneurish: A novel cell therapy (2024) - Team Presentation [English]**Title:** Reneurish: A novel cell therapy **Description:** Reneurish is an novel cell therapy that marks a new era in stroke treatment, addressing the leading cause of acquired disability worldwide. With an extended therapeutic window, Reneurish opens up new possibilities for stroke patients. By temporarily overexpressing the neurotrophic factor BDNF, this therapy actively regenerates necrotic tissue in the ischemic brain while reinforcing synaptic connections between healthy tissue and the graft. [Wiki](https://2024.igem.wiki/barcelona-ub) | [Official Page](https://teams.igem.org/5316)https://static.igem.org/peertube/streaming-playlists/hls/bfe0b2e4-4924-4030-8062-ea2ab2de329e/7d6082ae-fc08-4091-ae30-af657b4da166-master.m3u8https://video.igem.org/videos/embed/pGfdk8Gp2PfZ9iFrkWMaWo82501052024-10-10T13:37:06.093ZYES2024 PresentationsNOhttps://video.igem.org/w/rRf9MpRjaTjnmGwwMrPhnQhttps://video.igem.org/lazy-static/thumbnails/0dfa66c3-d160-414e-bc7f-012928296213.jpgMcMaster-Canada: Hermes: A safer and more effective delivery method for cancer t... (2024) - Team...**Title:** Hermes: A safer and more effective delivery method for cancer treatments **Description:** Cancer remains the second leading cause of death worldwide. Chemotherapy, radiotherapy, and surgery remain front line treatments however, their systemic toxicity remains a notable concern as over 65% of patients suffer from severe adverse side effects. McMaster_Canada aims to utilize the oncogenic nature of bacteria to develop Hermes, a platform technology that localizes and regulates therapeutic delivery at the tumour site. Our team designed a synthetic protien inspired by FAP2 on Fusobacterium nucleatum (F. nucleatum/Fn), that allows the our chassis, E. coli Nissle 1917, to colonize and co-exist in the tumour by binding to the overexpressed sugars - Gal-GalnAC. Once colonized, Hermes is equipped with a tumour microenvironment sensor that selectively triggers the production of a therapeutic agent at the site of the tumour. Using Hermes, we aim to improve clinical application of in-sera bacterial delivery system by reducing the dosage while maintain specificity for tumour colonization. [Wiki](https://2024.igem.wiki/mcmaster-canada) | [Official Page](https://teams.igem.org/5393)https://static.igem.org/peertube/streaming-playlists/hls/d154a1e2-3e5a-4aa4-bec8-1e1b6b4d52ba/35ba40f3-339f-4ad0-bf0d-a2ffa20575a7-master.m3u8https://video.igem.org/videos/embed/rRf9MpRjaTjnmGwwMrPhnQ6610412024-10-10T13:13:52.884ZYES2024 PresentationsNOhttps://video.igem.org/w/7L7M31N6nbPydVhsUWPWXGhttps://video.igem.org/lazy-static/thumbnails/9f6f3308-d9db-49ef-af2a-eb12e183b346.jpgAalto-Helsinki: COALES – Clinical on-target Adhesive LLPS engineered system (2024) - Team Present...**Title:** COALES – Clinical on-target Adhesive LLPS engineered system **Description:** It is often said that if a medicine has no side effects, it's unlikely to work. Some of the most serious side effect causing drugs are chemotherapeutic drugs. COALES introduces a novel solution through targeted cancer therapy, leveraging Liquid-Liquid Phase Separation (LLPS) to enhance drug delivery precision. We aim to concentrate therapeutic agents like doxorubicin specifically, improving its effectiveness and reducing side effects. Traditional cancer therapies often result in severe toxicity and are costly, limiting access for many patients. With COALES, we hope to offer a more affordable, scalable, and accessible treatment alternative. COALES holds the potential to be adapted for various cancer types, offering an alternative to how cancer could be treated in the future. Throughout our project, we engaged in various activities related to Integrated Human Practices and Education to raise awareness and to obtain comprehensive knowledge. [Wiki](https://2024.igem.wiki/aalto-helsinki) | [Official Page](https://teams.igem.org/5137)https://static.igem.org/peertube/streaming-playlists/hls/36bfbbe6-41de-45ee-87f7-523a5e1d94ee/57edefd9-55af-4634-a486-4353b7714b50-master.m3u8https://video.igem.org/videos/embed/7L7M31N6nbPydVhsUWPWXG8850412024-10-10T13:48:32.488ZYES2024 PresentationsNOhttps://video.igem.org/w/94Nwtir9UCyxmfBdsCDAPLhttps://video.igem.org/lazy-static/thumbnails/f478efc3-abeb-4807-9da3-0b4ef4b3f046.jpgShanghaitech-China: PACIFY (2024) - Team Presentation [English]**Title:** PACIFY **Description:** Itchiness, or pruritus, is a common discomfort that can escalate into a persistent and challenging issue when caused by specific factors like Staphylococcus aureus. This pathogen not only leads to inflammation and redness but also triggers relentless itching, severely affecting the quality of life. The itch disrupts daily activities, sleep, and emotional well-being, often leading to anxiety and depression. Current anti-itch products, mostly focused on antibiotics and medications, don't always provide quick or significant relief and may have side effects like skin thinning and pigmentation. Recognizing the urgency and importance of this issue, we are committed to using Escherichia coli as a model to simulate the itch caused by Staphylococcus aureus and identify effective substances to alleviate the discomfort. Our goal is to develop a safe, user-friendly product that soothes itching and aids in treatment without interfering with conventional methods, providing a more comfortable and pleasant experience for those affected. [Wiki](https://2024.igem.wiki/shanghaitech-china) | [Official Page](https://teams.igem.org/5174)https://static.igem.org/peertube/streaming-playlists/hls/4151034a-c858-4de6-85fb-8eff305f4662/08019db2-13db-4bcf-b54b-d263d6c7ef30-master.m3u8https://video.igem.org/videos/embed/94Nwtir9UCyxmfBdsCDAPL88202672024-10-10T14:14:41.045ZYES2024 PresentationsNOhttps://video.igem.org/w/fcfjsdYH3ad4HZAYEdfEFxhttps://video.igem.org/lazy-static/thumbnails/0151bc11-4c44-4b34-a10d-bd09e9aef755.jpgUSTC-Software: MoBASE: a platform to learn and analysis biological data (2024) - Team Presentatio...**Title:** MoBASE: a platform to learn and analysis biological data **Description:** Since the completion of the Human Genome Project, research in various omics fields has experienced rapid development. Whether it's NGS, TGS genome sequencing, or bulk RNA-seq, scRNA-seq, and spatial transcriptomics, the emergence of these technologies has allowed humans to explore and contemplate biological questions from a higher dimension. Simultaneously, the vast amount of biological data generated by omics analyses has spurred the development of bioinformatics. How to use this data to reveal deeper biological principles and mechanisms has become an important research direction. However, for iGEMers and undergraduate students in general, learning and using these analytical tools is not a simple task. Therefore, we have developed a platform called MoBASE, which employs a no-code and low-code interactive design. This allows users to start with principles and basic code, learn and use bioinformatics analysis tools, and ultimately apply them to their own research. [Wiki](https://2024.igem.wiki/ustc-software) | [Official Page](https://teams.igem.org/5305)https://static.igem.org/peertube/streaming-playlists/hls/72f1f252-e393-408a-8d26-d402c649fefd/426b3f2a-625a-4ae3-8868-dc370ad12c1e-master.m3u8https://video.igem.org/videos/embed/fcfjsdYH3ad4HZAYEdfEFx6960202024-10-10T14:26:28.006ZYES2024 PresentationsNOhttps://video.igem.org/w/hBcSFDCgugNdymez4tCz58https://video.igem.org/lazy-static/thumbnails/8ad13318-23d5-4556-8d63-2796a47e9361.jpgEast-Coast-Biocrew: Lactochoccus: I Can’t Believe It’s Not Chocolate (2024) - Team Presentation [...**Title:** Lactochoccus: I Can’t Believe It’s Not Chocolate **Description:** More than 70% of the world’s cocoa production originates from Cote d'Ivoire and Ghana. The process involves clearing out large sections of African rainforest for cocoa plantations. Furthermore, cocoa farming generally involves child and slave labor. To combat this, we are creating a synthetically produced chocolate flavoring that will eliminate the need for natural cocoa farming. We chose four of the most prominent flavors in chocolate (theobromine, pyrazine, furaneol and phenylethylamine) and worked to produce them in Lactococcus bacteria. To do this, we started by cloning the genes onto a plasmid, inserting them into the Lactococcus, inducing gene expression with the compound nisin. To evaluate our results, we will use GC-MS to measure the levels of each compound present in our bacteria. Furthermore, we interviewed and incorporated feedback from various experts and nonprofits into our project, which allowed us to have a more comprehensive understanding of stakeholder needs and perspectives. [Wiki](https://2024.igem.wiki/east-coast-biocrew) | [Official Page](https://teams.igem.org/5272)https://static.igem.org/peertube/streaming-playlists/hls/867c916a-9d32-463a-ac70-574e6d5f3c83/eb7da751-a780-4c5c-8e3f-26952b4c3fe1-master.m3u8https://video.igem.org/videos/embed/hBcSFDCgugNdymez4tCz588700282024-10-10T14:49:44.425ZYES2024 PresentationsNOhttps://video.igem.org/w/wHYNbhVw1aJ9S9aK6PfQ4zhttps://video.igem.org/lazy-static/thumbnails/bcee0f44-4865-4668-ab9d-3e4db826fd1f.jpgNENU-China: ScabBrewer: Modifying yeasts to detoxify deoxynivalenol (DON) while ... (2024) - Team...**Title:** ScabBrewer: Modifying yeasts to detoxify deoxynivalenol (DON) while brewing **Description:** Beer, a popular alcoholic beverage, uses grains like barley, oats, and wheat, which can be affected by Fusarium head blight (FHB) in warm, humid conditions. FHB, also known as scab, produces mycotoxin DON, posing a threat to human health and economies. It is urged to seek control methods to eliminate DON pollution in foods and feeds. We engineered a new yeast with extrachromosomal plasmids to separately enhance the cell wall adsorption and the DON enzymatic degradation efficiency in Saccharomyces pastorianus. To analyze the molecular mechanism of yeast DON adsorption and discover gene loci related to yeast's ability to adsorb DON, we constructed a model to predict the DON adsorption ability of different yeasts. [Wiki](https://2024.igem.wiki/nenu-china) | [Official Page](https://teams.igem.org/5470)https://static.igem.org/peertube/streaming-playlists/hls/f8cea7ff-e96e-4a08-bbfd-797b3d6c7f0f/fcb7d646-32d6-473d-88f3-06c22573c393-master.m3u8https://video.igem.org/videos/embed/wHYNbhVw1aJ9S9aK6PfQ4z8920962024-10-10T20:15:09.895ZYES2024 PresentationsNOhttps://video.igem.org/w/5FTftp8FiCBe9feuXc3ZDdhttps://video.igem.org/lazy-static/thumbnails/524c80d2-3fb1-41e1-9316-e4e32a6fb26d.jpgRio-UFRJ-Brazil: YOB3: An Alternative for the Biotechnological Production of Pla... (2024) - Team...**Title:** YOB3: An Alternative for the Biotechnological Production of Plant Biostimulant Supplements **Description:** The YOB3 system was designed by the Rio_UFRJ_BR team to produce a biostimulant, based primarily on the NAD+ precursor nicotinamide riboside (NR), to increase plant productivity and stress tolerance. Production is carried on the yeast Saccharomyces cerevisiae due to its versatility in genomic manipulation, fermentation capabilities, and environmental sustainability in producing bioproducts. YOB3 system aims to attain high productivity by combining techniques of flux balance analysis, genetic and protein synthesis manipulation, and growth in an affordable sugarcane medium, which is largely produced in Brazil. By such means, we intend to keep the NR production affordable for small to big producers and help mitigate the demand for hazardous chemicals in agriculture. [Wiki](https://2024.igem.wiki/rio-ufrj-brazil) | [Official Page](https://teams.igem.org/5058)https://static.igem.org/peertube/streaming-playlists/hls/25f62533-1f68-4362-b1d3-49d82bac4052/95c863f4-5574-4cff-a177-a78f27d6eec5-master.m3u8https://video.igem.org/videos/embed/5FTftp8FiCBe9feuXc3ZDd8990142024-10-10T21:16:15.908ZYES2024 PresentationsNOhttps://video.igem.org/w/e32JABp9n4RCc9NkQ8mp6shttps://video.igem.org/lazy-static/thumbnails/3cd3dc4b-234b-42d8-a24e-47921877b7af.jpgUiOslo-Norway: DetectiMOL - A Continuous Cortisol Monitoring Device (2024) - Team Presentation [E...**Title:** DetectiMOL - A Continuous Cortisol Monitoring Device **Description:** This video represents the DetectiMOL Teams idea on making a Continuous Monitoring Cortisol Patch. It goes through why we believe this project is so important, what we designed and found so far, how it affects people and how people feel about a new cortisol monitoring device. We include advice from supervisors and researchers as well as feedback from the public into the data we are presenting in our video. [Wiki](https://2024.igem.wiki/uioslo-norway) | [Official Page](https://teams.igem.org/5333)https://static.igem.org/peertube/streaming-playlists/hls/698f5be7-4c86-475b-a459-53402b90cbc8/59da4a8f-a873-43c9-b8e6-e503f5a19098-master.m3u8https://video.igem.org/videos/embed/e32JABp9n4RCc9NkQ8mp6s7680272024-10-10T20:33:12.117ZYES2024 PresentationsNOhttps://video.igem.org/w/kLz9iPew5tiMYQjUY4gZ2Rhttps://video.igem.org/lazy-static/thumbnails/ad8b8325-472c-40cc-ad44-3239019107a5.jpgFHS-NB-ZJ-China: Defeating Peach Tree Gummosis (2024) - Team Presentation [English]**Title:** Defeating Peach Tree Gummosis **Description:** The implementation of precision medicine in cancer requires precision diagnosis and precision therapy. Given the severity of peach gummosis as a disease of peach trees, coupled with its association with age, and taking into account our school's proximity to the prestigious World's First Peach Garden, we have taken a pioneering approach by considering peach trees as our cancer patients and implementing precision medicine strategies. For this year's competition, we studied the literature and carried out field research to gather as much information as possible. We have completed the hardware part of a simple fluorometer that can be used to diagnose gummosis disease in peach trees. [Wiki](https://2024.igem.wiki/fhs-nb-zj-china) | [Official Page](https://teams.igem.org/5274)https://static.igem.org/peertube/streaming-playlists/hls/a016c920-f157-4fc1-afe4-888d2d91a5f7/ce7e8362-90db-492c-a6ab-867749528373-master.m3u8https://video.igem.org/videos/embed/kLz9iPew5tiMYQjUY4gZ2R6860162024-10-10T20:59:16.159ZYES2024 PresentationsNOhttps://video.igem.org/w/bAZLHpoZCa6xeBXnGBBcpdhttps://video.igem.org/lazy-static/thumbnails/488d90d2-15e4-4067-9e65-4eb44052d211.jpgLambert-GA: Lamber-GA | SHIELD: Silencing Harmful Immunogenic Effector Links To ... (2024) - Team...**Title:** Lamber-GA | SHIELD: Silencing Harmful Immunogenic Effector Links To Diseases **Description:** The World Health Organization has declared antimicrobial resistance (AMR) as the biggest global public health threat of the 21st century. AMR occurs when microorganisms evolve to resist antibiotics, rendering traditional treatments ineffective– a process exacerbated by the current misuse of antibiotics in agriculture and healthcare. To combat AMR, Lambert iGEM created SHIELD: a versatile toolbox for developing novel antimicrobials that combat antibiotic-resistant diseases. SHIELD uses the CRISPR-interference system to silence critical genes in target organisms, alongside a toehold biosensor to measure the extent of gene silencing. We also developed SWORD: a machine learning software tool to optimize toehold design, and LabPilot: a frugal liquid handler to automate experimentation. SHIELD enables researchers to rapidly develop multiple antimicrobials for a single disease by targeting several genes, circumventing the emergence of resistance in a single gene without compromising overall treatment effectiveness, thus SHIELD empowers researchers to outpace antibiotic resistance. [Wiki](https://2024.igem.wiki/lambert-ga) | [Official Page](https://teams.igem.org/5096)https://static.igem.org/peertube/streaming-playlists/hls/55de4702-587d-4224-b227-fce3f3afc136/e7c6ac87-278c-4f7e-beb7-b6a0d3b086fa-master.m3u8https://video.igem.org/videos/embed/bAZLHpoZCa6xeBXnGBBcpd86501242024-10-10T21:04:28.723ZYES2024 PresentationsNOhttps://video.igem.org/w/232wQ9DGTNLTCRL6mLifXrhttps://video.igem.org/lazy-static/thumbnails/a765ae10-eef2-4940-8119-15042fc786b6.jpgHK-United: Obviation: Preventive Measure for Cardiovascular Diseases (2024) - Team Presentation [...**Title:** Obviation: Preventive Measure for Cardiovascular Diseases **Description:** Our iGEM project is centered on producing a fusion protein, TP1-P5, by combining ginsentide TP1 with lupin peptide P5 we aim to develop a more effective and affordable cardiovascular supplement. This fusion protein addresses significant gaps in the current market, where many existing products lack comprehensive benefits or are prohibitively expensive. Our strategy involves the cost-effective biosynthesis of TP1-P5 in E. coli, and then extracting them to make as different forms of supplements, ensuring accessibility for a broader audience. We believe that this innovative supplement can play a vital role in promoting cardiovascular health, ultimately contributing to better health outcomes for individuals at risk of heart disease. [Wiki](https://2024.igem.wiki/hk-united) | [Official Page](https://teams.igem.org/5063)https://static.igem.org/peertube/streaming-playlists/hls/086191ef-0e3b-44e1-bb21-5f615f2a22af/be4f9614-69cf-4ba3-bb2b-50293105e59a-master.m3u8https://video.igem.org/videos/embed/232wQ9DGTNLTCRL6mLifXr8620702024-10-10T21:32:46.237ZYES2024 PresentationsNOhttps://video.igem.org/w/wo9gBXL4xTbrvEcJQtXsBGhttps://video.igem.org/lazy-static/thumbnails/ddffe512-7a55-472f-86ad-1b048e6d0d95.jpgTec-Monterrey: ALIVE (2024) - Team Presentation [English]**Title:** ALIVE **Description:** The contamination of aquatic environments with 17α-ethinylestradiol (EE2) presents serious ecological and public health concerns due to its endocrine-disrupting effects. To address this issue, we have engineered a novel transcriptional regulatory protein, the Estrogen-Sensitive Transcriptional Element Regulator (ESTER), designed to selectively activate gene expression in the presence of EE2. Several computational tools, including AlphaFold 3, Rosetta, and Chimera, were employed to design this EE2-sensitive protein. [Wiki](https://2024.igem.wiki/tec-monterrey) | [Official Page](https://teams.igem.org/5450)https://static.igem.org/peertube/streaming-playlists/hls/f6099e6f-260c-49f0-9bd3-c25d2c33a106/6620236e-ad02-48a8-b348-83dc29a66c90-master.m3u8https://video.igem.org/videos/embed/wo9gBXL4xTbrvEcJQtXsBG8550252024-10-10T21:22:26.740ZYES2024 PresentationsNOhttps://video.igem.org/w/wD922wEa6bLL2A6MK1u1Pshttps://video.igem.org/lazy-static/thumbnails/6c0879f7-346d-43cb-b8cc-ee29702a62ef.jpgUManitoba: RePLAse plastic with soil (2024) - Team Presentation [English]**Title:** RePLAse plastic with soil **Description:** Imagine a world where sustainability is the new trend, yet plastic pollution remains a great threat to human health and the environment. Unfortunately, that's the reality we're facing today. [Wiki](https://2024.igem.wiki/umanitoba) | [Official Page](https://teams.igem.org/5089)https://static.igem.org/peertube/streaming-playlists/hls/f8219ed0-95b0-4ec7-b643-a425dda062c0/91d5756a-8948-4007-9fb7-c773663ebee4-master.m3u8https://video.igem.org/videos/embed/wD922wEa6bLL2A6MK1u1Ps6500192024-10-10T21:17:25.659ZYES2024 PresentationsNOhttps://video.igem.org/w/iV6Gefq9GYqXfCViZqwBYJhttps://video.igem.org/lazy-static/thumbnails/16df6280-2eaf-4d5b-9e40-0da957143c7b.jpgHeidelberg: PICasSO | CRISPR/Cas-Mediated 3D Genome Engineering (2024) - Team Presentation [English]**Title:** PICasSO | CRISPR/Cas-Mediated 3D Genome Engineering **Description:** Cells interpret identical DNA sequences differently depending on the 3D genome organization, leading to diverse cellular phenotypes and even determining between health and disease. While synthetic biology provides powerful methods to engineer the genome sequence, tools to sculpt the genome spatial architecture are lacking. We address this profound gap by introducing PICasSO, a toolbox for rationally engineering the 3D genome organization. Using different CRISPR/Cas orthologs and new, engineered fusion guide RNAs, we created "Cas staples" that bind and connect otherwise non-interacting genomic regions. To streamline the development cycle of new Cas staples, we developed DaVinci, a multi-faceted model integrating both local and long-range DNA-protein interactions into a unified pipeline. Combining PICasSO and DaVinci, we recapitulated mechanistic core principles of enhancer hijacking - a driver of tumor development. Our comprehensive part collection and extensive education program enable the next generation of iGEMers to efficiently adapt PICasSO and engineer genomes in 3D. [Wiki](https://2024.igem.wiki/heidelberg) | [Official Page](https://teams.igem.org/5237)https://static.igem.org/peertube/streaming-playlists/hls/9115492c-4068-4d7b-9c74-9d8425c5f656/d0ba8857-561a-441f-adaa-66313497bccd-master.m3u8https://video.igem.org/videos/embed/iV6Gefq9GYqXfCViZqwBYJ899520072024-10-10T21:25:30.686ZYES2024 PresentationsNOhttps://video.igem.org/w/fcCFhY5i7kkzhb5g2qhtHahttps://video.igem.org/lazy-static/thumbnails/b8a9225c-7cdf-4e61-99e4-a049b34972dc.jpgSJTU-Software: HEATMAP —— Harmonizing Enzymatic Activity and Temperature in Meta... (2024) - Team...**Title:** HEATMAP —— Harmonizing Enzymatic Activity and Temperature in Metabolic Pathways **Description:** The optimization of metabolic pathway within the Saccharopolyspora spinosa plays an irreplaceable role in increasing purity and unit yield of spinosad. Enzymes, as essential components of life, have long been a research focal point. One of their fundamental characteristics, optimal temperature, serves as a key link between biological activity and temperature. In this project, we set up a deep learning model to predict the optimal temperatures of enzymes within the body of Saccharopolyspora spinosa and compared them to the actual fermentation temperatures to identify enzymes with large differences. These enzymes became our key targets for optimization. Moreover, to simplify the optimization, based on the GEM model, we added enzyme and temperature constraints to construct the etcGEM model so that key enzymes with yield limitations can be identified. Targeted evolution of these key enzymes brings their optimal temperatures closer to the actual fermentation temperatures, thus improves productivity. [Wiki](https://2024.igem.wiki/sjtu-software) | [Official Page](https://teams.igem.org/5085)https://static.igem.org/peertube/streaming-playlists/hls/72ffb9da-e159-4e8f-abb3-161ff9d99b7f/68fa8b29-2446-4cae-b171-b562c4980086-master.m3u8https://video.igem.org/videos/embed/fcCFhY5i7kkzhb5g2qhtHa8930352024-10-10T20:40:04.820ZYES2024 PresentationsNOhttps://video.igem.org/w/ksyCHHiji3HPghXwec9JaWhttps://video.igem.org/lazy-static/thumbnails/8328900e-d928-4bfb-8db0-a9cd916cd988.jpgIISc-Software: IMPROViSeD - Integrated Modelling of Protein complexes Via Single... (2024) - Team...**Title:** IMPROViSeD - Integrated Modelling of Protein complexes Via Single-shot registration using DREAM **Description:** The exploration of protein-protein interactions and their implications in cellular functions is pivotal for the development of effective therapeutic strategies. This project introduces IMPROVISeD, an advanced platform designed for the modeling of protein complexes. We create models in one shot by directly incorporating geometric constraints from extracted experimental data to orientate the structure of the subunits (proteins) forming the complex. The approach uses significantly less time compared to contemporary algorithms that employ sampling-based approaches. The approach was tested for both synthetically – and experimentally-derived constraint data. The method is permissive to missing and ambiguous constraint data. The underlying nonlinear optimization formulations, including one-shot registration, make IMPROViSeD's approach computationally efficient, robust, and scalable. The availability of modelled complexes provides key insights into the structure, function, and interactions of subunits and establishes a solid framework for designing targeted therapies. The tool can also be leveraged for modelling heterogeneous macromolecular complexes. [Wiki](https://2024.igem.wiki/iisc-software) | [Official Page](https://teams.igem.org/5346)https://static.igem.org/peertube/streaming-playlists/hls/9d93155a-b8d2-43c9-b5be-39c55b81bb38/c0444064-0178-4018-b2aa-3b36d829939d-master.m3u8https://video.igem.org/videos/embed/ksyCHHiji3HPghXwec9JaW8980262024-10-10T20:41:43.393ZYES2024 PresentationsNOhttps://video.igem.org/w/11osisdUR2VnxrWfdm2xNVhttps://video.igem.org/lazy-static/thumbnails/f12fc04d-a826-4222-b118-369d9f6116f0.jpgETH-Zurich: ReguROS - high-pass ROS sensors for health and agricultural theranos... (2024) - Team...**Title:** ReguROS - high-pass ROS sensors for health and agricultural theranostics **Description:** Our project focuses on developing a versatile platform for early detection and treatment of diseases by targeting reactive oxygen species (ROS). Elevated ROS levels are a common indicator in both plant and human diseases. The platform aims to engineer various bacteria and the yeast S. cerevisiae to detect high ROS levels and produce therapeutic agents or visible signals. by implementing high-pass filter behavior in promoters bound by the transcription factors OxyR, YAP1 and TGA2. This innovation seeks to improve disease management and outcomes in agriculture and medicine, addressing case study problems of fireblight in plants and chronic inflammation in humans. [Wiki](https://2024.igem.wiki/eth-zurich) | [Official Page](https://teams.igem.org/5356)https://static.igem.org/peertube/streaming-playlists/hls/000dd662-61f5-4470-af0e-808ae1b89e65/d8d61c87-04f6-436a-942a-c8af9c5fda00-master.m3u8https://video.igem.org/videos/embed/11osisdUR2VnxrWfdm2xNV9010272024-10-10T20:43:27.787ZYES2024 PresentationsNOhttps://video.igem.org/w/q6SshkTv3T5rtR8HP5Depuhttps://video.igem.org/lazy-static/thumbnails/953c8b13-b966-4ac0-b4f6-e730542214e5.jpgSMU: Dual-Specific Engineered T Cells Targeting Hepatocellular Carcinoma and the... (2024) - Team...**Title:** Dual-Specific Engineered T Cells Targeting Hepatocellular Carcinoma and the Immunosuppressive Microenvironment **Description:** Hepatocellular carcinoma (HCC) is one of the leading causes of cancer-related deaths globally, and China has a high incidence of liver cancer. In 2020, new cases and deaths from liver cancer in China accounted for approximately half of the global total. Traditional treatment methods such as surgery, radiotherapy, and chemotherapy have limited effectiveness in advanced HCC. Despite significant breakthroughs in T cell immunotherapy (including CAR-T and TCR-T cell immunotherapy) in the treatment of hematologic malignancies, the tumor immunosuppressive microenvironment is a unique feature of solid tumors, and a key factor in inducing tumor immune escape, setting them apart from hematologic malignancies. Cancer-associated fibroblasts (CAFs) are the primary organizers of the immunosuppressive microenvironment and promote HCC immune escape through various mechanisms. In this project, a dual-specific engineered T cell named “Bispecific T-cell Leaper” has been developed to target HCC and CAFs, aiming to disrupt the immunosuppressive microenvironment and reverse HCC immune escape. [Wiki](https://2024.igem.wiki/smu) | [Official Page](https://teams.igem.org/5491)https://static.igem.org/peertube/streaming-playlists/hls/c32d23b8-c8db-4faa-acb1-f1ea0871b14e/3eec6a14-0777-4cce-829c-338119f29246-master.m3u8https://video.igem.org/videos/embed/q6SshkTv3T5rtR8HP5Depu6780122024-10-10T20:44:27.873ZYES2024 PresentationsNOhttps://video.igem.org/w/98vQ64wP9hUNRUyFDSqxTShttps://video.igem.org/lazy-static/thumbnails/aa8a3c91-7da1-4e24-bccd-1ae61fdafd17.jpgMichigan: BioXane: Engineering Bacteria in Bioreactors to Remove 1,4-Dioxane fro... (2024) - Team...**Title:** BioXane: Engineering Bacteria in Bioreactors to Remove 1,4-Dioxane from Water Systems **Description:** 1,4-Dioxane is a Group 2B carcinogen that poses immediate risk to human health and is a byproduct of many common industrial processes. For over two decades, 1,4-dioxane was improperly disposed of into a tributary that feeds into the Huron River, the primary water supply for the city of Ann Arbor, Michigan. The current remediation method is expensive and inefficient. Additionally, it introduces bromate, another carcinogen, to the water in the process. Our team engineered and optimized a freshwater bacteria (Pseudomonas putida S16) with a tetrahydrofuran monooxygenase gene complex (THFMO) known to naturally degrade 1,4-dioxane. Our bacteria are suited to operate within a bioreactor, which we aim to implement in tandem with existing infrastructure. Our ultimate goal is to improve the sustainability, efficiency, and efficacy of the current water treatment process. [Wiki](https://2024.igem.wiki/michigan) | [Official Page](https://teams.igem.org/5196)https://static.igem.org/peertube/streaming-playlists/hls/41d5b2d0-e832-41ad-802d-60585c8e2ddc/0d296a4b-e6ac-4566-b7af-a0928695bcbd-master.m3u8https://video.igem.org/videos/embed/98vQ64wP9hUNRUyFDSqxTS7510192024-10-10T20:56:15.179ZYES2024 PresentationsNOhttps://video.igem.org/w/cLojJizamAeFKYLKs4yHAdhttps://video.igem.org/lazy-static/thumbnails/ff3fdea6-f8d1-4349-8b50-0deedd1a8ae8.jpgBIT: Logical Gate-Based Synergistic Toxicity Detection ＆Screening System (2024) - Team Presentati...**Title:** Logical Gate-Based Synergistic Toxicity Detection ＆Screening System **Description:** Environmental endocrine disruptors (EDCs) are chemicals that can mimic or interfere with natural hormones, primarily affecting organisms through endocrine disruption by interacting with hormone receptors. However, studies suggest they may also induce oxidative stress and other effects, causing more profound impacts. Traditional detection only monitors single endocrine disruption effects, neglecting the combined toxicological effects within organisms. We aim to assess these complex effects using a microbial sensor based on multiple logic gates. We've developed a hormone-sensitive intein to detect endocrine disruption and used the recA element from the SOS response to identify oxidative damage. An AND gate detection circuit with HRP regulation network enables the simultaneous detection of both effects. Additionally, we've designed a high-throughput, automated, portable fluorescence detection platform for our biosensor. Our project helps identify EDCs and monitor their oxidative damage effects, which is crucial for a comprehensive assessment of their potential impacts on organisms. [Wiki](https://2024.igem.wiki/bit) | [Official Page](https://teams.igem.org/5358)https://static.igem.org/peertube/streaming-playlists/hls/5f470214-af71-46fb-b137-4955ce2bb5b4/d8ad5ebf-3014-4272-b775-315d6080d9d1-master.m3u8https://video.igem.org/videos/embed/cLojJizamAeFKYLKs4yHAd8830292024-10-10T20:57:17.724ZYES2024 PresentationsNOhttps://video.igem.org/w/wWFh1167ofnqX9ewjFkhejhttps://video.igem.org/lazy-static/thumbnails/fc8c01e1-94e5-4300-bd09-0c50df06dd83.jpgTU-Eindhoven: Prom!se (2024) - Team Presentation [English]**Title:** Prom!se **Description:** Presentation video of iGEM TU/e team Prom!se [Wiki](https://2024.igem.wiki/tu-eindhoven) | [Official Page](https://teams.igem.org/5403)https://static.igem.org/peertube/streaming-playlists/hls/fa94872a-5972-4657-a94e-784c587032ec/7df8c095-d208-4585-89c2-fbe37036da83-master.m3u8https://video.igem.org/videos/embed/wWFh1167ofnqX9ewjFkhej8970852024-10-10T20:31:42.654ZYES2024 PresentationsNOhttps://video.igem.org/w/svr3zav2SUeJGpMD71veixhttps://video.igem.org/lazy-static/thumbnails/5f41ff7a-3a5c-408e-8b86-e4fa820eb4a1.jpgSJTU-BioX-Shanghai: XPCures: Xeroderma Pigmentosum Complementation Group C Ultra... (2024) - Team...**Title:** XPCures: Xeroderma Pigmentosum Complementation Group C Ultraviolet Resposive gEnetic Switch **Description:** In this video, we introduce the background and project design for XPCures, and then present the key outcomes of our work, including wet lab results, part collection, modeling, human practices and education. Through this video, we aim to showcase the dedication and creativity of our team in developing a UV-responsive gene therapy for Xeroderma Pigmentosum (XP). [Wiki](https://2024.igem.wiki/sjtu-biox-shanghai) | [Official Page](https://teams.igem.org/5182)https://static.igem.org/peertube/streaming-playlists/hls/d6a99bce-15e0-4157-94f4-684436c37dd5/e74451c7-32d6-441a-a9e0-7bb6d51cfbc0-master.m3u8https://video.igem.org/videos/embed/svr3zav2SUeJGpMD71veix8930292024-10-10T21:03:20.898ZYES2024 PresentationsNOhttps://video.igem.org/w/9vuFwYM17d9yMaP41jgssyhttps://video.igem.org/lazy-static/thumbnails/acc1a411-9ea2-4e64-a0f1-4bb13631fcd7.jpgImperial-College: Biotraction Compartmentalisation Strategies for In Vitro Rubbe... (2024) - Team...**Title:** Biotraction Compartmentalisation Strategies for In Vitro Rubber Biosynthesis **Description:** Natural rubber is a ressource that is becoming scarcer by the year, and while synthetic rubber is currently being used to fill the void, it cannot compete with the natural product, albeit perhaps in its lack of eco-sustainability. Biotraction's constructs mimic the cellular components of the rubber producing Hevea Brasiliensis tree and recreates them in E. coli, inspiring a cleaner, more sustainable alternative. While rubber production in E. Coli is not new, Biotraction pushes previous limitations to the large scale adoption of this manufacturing method through its four original rubber encapsulation methods. The team also explores the impact of this new technology, with stakeholders at every level, from small scale rubber farmers to CEOs of rubber companies, including the perspectives of sustainability experts and more. [Wiki](https://2024.igem.wiki/imperial-college) | [Official Page](https://teams.igem.org/5416)https://static.igem.org/peertube/streaming-playlists/hls/44e75ab2-9d76-4d77-a158-de6afd39ca64/a58a8ac0-8b78-4b45-b5b4-23d35925b00b-master.m3u8https://video.igem.org/videos/embed/9vuFwYM17d9yMaP41jgssy8730552024-10-10T20:38:47.555ZYES2024 PresentationsNOhttps://video.igem.org/w/vpFmJYeKkM3T67LqiCAPjFhttps://video.igem.org/lazy-static/thumbnails/ef2db03d-0539-4bdd-aac9-1604f39e69c2.jpgUCNZ: Stop Johne's (2024) - Team Presentation [English]**Title:** Stop Johne's **Description:** Meet the UCNZ iGEM team as they give a summary of their iGEM journey. [Wiki](https://2024.igem.wiki/ucnz) | [Official Page](https://teams.igem.org/5330)https://static.igem.org/peertube/streaming-playlists/hls/ee276201-5908-48b9-aa56-2352f73b8507/d64e23ea-3d0a-41b3-8d57-511f029ba900-master.m3u8https://video.igem.org/videos/embed/vpFmJYeKkM3T67LqiCAPjF8200142024-10-10T21:28:03.530ZYES2024 PresentationsNOhttps://video.igem.org/w/nSEn4R5ztEFhky69ncuybzhttps://video.igem.org/lazy-static/thumbnails/50fe01f4-1e1b-4e6c-b23b-dcb9590e3f84.jpgTecCEM: ALEBBRIGE: Active Linked Edible Biopeptides in Bacillus subtilis: Recomb... (2024) - Team...**Title:** ALEBBRIGE: Active Linked Edible Biopeptides in Bacillus subtilis: Recombinant Integrated Genetic Engineering **Description:** ALEBBRIGE is an innovative food supplement designed to promote antidiabetic, antihypertensive, antithrombotic and hypocholesterolemic properties. This unique formulation contains a bioactive multipurpose peptide derived from protein fragments of various nutritious foods, including goat and cow milk, quinoa, and calpis. ALEBBRIGE aims to enhance health as a support in prevention of diabetes and its comorbidities. Drawing inspiration from the vibrant Mexican alebrijes, the multipeptides in ALEBBRIGE serve as a metaphorical representation of this artistic concept, combining active peptides from diverse food sources into a cohesive and functional product. This creative approach not only reflects the richness of Mexican culture but also highlights the potential of utilizing natural ingredients to improve health outcomes. [Wiki](https://2024.igem.wiki/teccem) | [Official Page](https://teams.igem.org/5150)https://static.igem.org/peertube/streaming-playlists/hls/b122be16-6798-40ae-ac50-4dee83966595/47e752d7-5b86-4e9c-8929-d8e84252d34c-master.m3u8https://video.igem.org/videos/embed/nSEn4R5ztEFhky69ncuybz8780322024-10-10T21:43:26.283ZYES2024 PresentationsNOhttps://video.igem.org/w/oppuzHM5X1BWggjhK1FjJhhttps://video.igem.org/lazy-static/thumbnails/e6797791-ebcb-433b-beb3-c6f0496a896b.jpgiZJU-China: Yeastea - An oscillatory yeast-derived skincare solution for enhance... (2024) - Team...**Title:** Yeastea - An oscillatory yeast-derived skincare solution for enhanced skin barrier repair **Description:** Sensitive skin affects approximately 60% of the global population, leading to an increasing demand for safe and effective skincare solutions. However, natural ingredients like (–)-α-bisabolol, known for the anti-inflammatory properties, are costly when combined with yeast extracts. To address this, we designed "Yeastea", a novel 2+1 yeast-fermented skincare product combining (–)-α-bisabolol, ceramides, and yeast extract for enhanced skin barrier repair. We engineered Saccharomyces cerevisiae to produce the key ingredients via the genetic oscillator that reduces cytotoxicity and enhances the yeast lifespan. We increased ceramide production by 37%. This innovative yeast-fermented skincare product offers an affordable, sustainable solution for sensitive skin, with a broader future in the skincare and cosmetic industry. [Wiki](https://2024.igem.wiki/izju-china) | [Official Page](https://teams.igem.org/5371)https://static.igem.org/peertube/streaming-playlists/hls/b56da29a-976d-4569-b427-b87370dcfa14/14e1ba54-75ac-444d-b0b9-482f001875cf-master.m3u8https://video.igem.org/videos/embed/oppuzHM5X1BWggjhK1FjJh8990432024-10-10T21:53:40.819ZYES2024 PresentationsNOhttps://video.igem.org/w/sVrpugGdzgZEk1W2f3tCSXhttps://video.igem.org/lazy-static/thumbnails/478a7c89-057f-4c99-8ba9-3c29b0f13d22.jpgHongKong-UCCKE: The Future of Agriculture: HA is for Harvest! (2024) - Team Presentation [English]**Title:** The Future of Agriculture: HA is for Harvest! **Description:** Hey everybody! We are Harvest. The future of agriculture is here, and its name is Hydrogel! Find out how we developed our project, from its inspiration, to the search for a suitable solution, to Hydrogel's development, as well as optimising it and consulting with external contributors to prepare it for a practical application in the market. We hope you enjoy the presentation! [Wiki](https://2024.igem.wiki/hongkong-uccke) | [Official Page](https://teams.igem.org/5201)https://static.igem.org/peertube/streaming-playlists/hls/da03ae6b-a25b-4f14-94ba-b1f4d0b78af3/9065c575-0614-4292-803e-df546ee7383c-master.m3u8https://video.igem.org/videos/embed/sVrpugGdzgZEk1W2f3tCSX8670342024-10-10T21:54:12.198ZYES2024 PresentationsNOhttps://video.igem.org/w/srsvaJjV5uD1BkB6EgRh4phttps://video.igem.org/lazy-static/thumbnails/72384ae9-a6e2-45b8-9df9-f4ceaf004cb0.jpgAFMU-China: FIST: Engineered Lactobacillus Transplantation for T2DM Treatment (2024) - Team Prese...**Title:** FIST: Engineered Lactobacillus Transplantation for T2DM Treatment **Description:** Our foodborne stress engineered lactobacilli secrete FGF21 in response to food stimuli and interact with human intestinal cells to improve tissue insulin resistance and lower blood sugar levels. Please refer to the link for more information: https://2024.igem.wiki/afmu-china/ [Wiki](https://2024.igem.wiki/afmu-china) | [Official Page](https://teams.igem.org/5283)https://static.igem.org/peertube/streaming-playlists/hls/d61b884b-32a7-4e81-a9d7-f0949e38c61d/9bc21937-85f8-4504-aa47-e4c18bfc8a44-master.m3u8https://video.igem.org/videos/embed/srsvaJjV5uD1BkB6EgRh4p7900632024-10-10T22:09:09.876ZYES2024 PresentationsNOhttps://video.igem.org/w/aPmZXoBmWR3ehJGLuL1mEzhttps://video.igem.org/lazy-static/thumbnails/4cda0877-44e8-4914-8905-93c34d063edb.jpgTUM-Straubing: Bluebear Bio: Cell Free for All (2024) - Team Presentation [English]**Title:** Bluebear Bio: Cell Free for All **Description:** The cell-free transcription and translation (TXTL) system is a pivotal technology for producing biomolecules directly from DNA templates without relying on cell viability, allowing for rapid production and testing. Cell-free expression systems have gained significant popularity in the field of synthetic biology. Their ability to express genetic circuits in isolation from a host’s genome, to permit high-throughput experimentation, and their portability make them attractive for use in pharmaceutical and industrial research, point-of-care applications, and the education field. Learn more about how we're bringing this technology to labs all around the world. [Wiki](https://2024.igem.wiki/tum-straubing) | [Official Page](https://teams.igem.org/5286)https://static.igem.org/peertube/streaming-playlists/hls/4f7f2577-f34a-4eca-832e-0e838d5be0cd/a69b2053-193f-40ef-8231-052ad674b442-master.m3u8https://video.igem.org/videos/embed/aPmZXoBmWR3ehJGLuL1mEz89801062024-10-10T22:04:32.568ZYES2024 PresentationsNOhttps://video.igem.org/w/wQV8gkXug6tTfJGWDYCoichttps://video.igem.org/lazy-static/thumbnails/41796967-3d60-425e-bde5-90afaef250be.jpgIIT-Bombay: CalciCapture : IIT Bombay (2024) - Team Presentation [English]**Title:** CalciCapture : IIT Bombay **Description:** We at iGEM IIT-Bombay, are working on an innovative nature-based solution – CalciCapture - to tackle climate change using a unique calcifying green marine algae- Emiliania huxelyi. Through synthetic biology, we are enhancing the calcification process of E. huxleyi, a species of coccolithophore, to capture carbon more efficiently from the atmosphere and convert it into calcium carbonate shells. This algal-based solution sequesters carbon offering a sustainable approach to combat the climate crisis. [Wiki](https://2024.igem.wiki/iit-bombay) | [Official Page](https://teams.igem.org/5365)https://static.igem.org/peertube/streaming-playlists/hls/f9c699b1-1d55-407e-b093-1fa4de78cdbd/484f1b13-da94-4a78-b884-359c68bb5d5f-master.m3u8https://video.igem.org/videos/embed/wQV8gkXug6tTfJGWDYCoic8890692024-10-10T21:39:48.927ZYES2024 PresentationsNOhttps://video.igem.org/w/42L5YEe2YigekzNzcm5K1Khttps://video.igem.org/lazy-static/thumbnails/31d6c2c8-e14d-4470-893a-b22c64920fab.jpgUCalgary: ErythrO2: Addressing the blood shortage crisis (2024) - Team Presentation [English]**Title:** ErythrO2: Addressing the blood shortage crisis **Description:** ErythrO2 addresses the global blood shortage crisis by recombinantly producing erythrocruorin, a stable oxygen carrier from earthworms, in yeast and E. coli—the first time this has been done. Unlike human blood, which lasts 42 days with refrigeration, erythrocruorin has a two-year shelf life at room temperature and avoids nitric oxide scavenging, heme, and ROS release. This makes it ideal for rural emergencies or humanitarian applications where refrigeration is not available. [Wiki](https://2024.igem.wiki/ucalgary) | [Official Page](https://teams.igem.org/5194)https://static.igem.org/peertube/streaming-playlists/hls/188a541e-c759-42f3-a977-80722dc2cd37/11bfa791-81aa-41a0-b073-0a586160e0ee-master.m3u8https://video.igem.org/videos/embed/42L5YEe2YigekzNzcm5K1K8320562024-10-10T21:42:10.721ZYES2024 PresentationsNOhttps://video.igem.org/w/2SxCUurbmwBW8bw92UBby9https://video.igem.org/lazy-static/thumbnails/a038d2fa-90de-44da-9dcc-008736a046ef.jpgSVCE-CHENNAI: Revolutionizing Cystic Fibrosis Diagnosis: CFastDx (2024) - Team Presentation [Engl...**Title:** Revolutionizing Cystic Fibrosis Diagnosis: CFastDx **Description:** Uncover our revolutionary cystic fibrosis diagnostic kit! Leveraging CRISPR Cas12a technology, this point-of-care solution enables rapid detection of the F508del mutation using a simple buccal swab. With in-kit DNA extraction, it eliminates the need for lab equipment, delivering accessible and accurate results on a lateral flow assay strip. [Wiki](https://2024.igem.wiki/svce-chennai) | [Official Page](https://teams.igem.org/5412)https://static.igem.org/peertube/streaming-playlists/hls/0f27d2df-351a-4378-8b57-a3263c965808/7c941ba0-fb4a-434c-909a-48fd578f495c-master.m3u8https://video.igem.org/videos/embed/2SxCUurbmwBW8bw92UBby97680462024-10-10T21:44:28.961ZYES2024 PresentationsNOhttps://video.igem.org/w/x4DJKPMD1iW8swUsMzUBtGhttps://video.igem.org/lazy-static/thumbnails/06ef30eb-0105-4ac1-8631-90dc9fc236e6.jpgSZPU-China: Protector Program (2024) - Team Presentation [English]**Title:** Protector Program **Description:** Our project-Protector Program, located in a hospital restroom, features the struggle between harmful bacteria and the genetically enhanced E. coli strain Nissle 1917. Through collaboration with the SZPU-China team and state-of-the-art research, we've improved this strain to combat fecal-oral transmission in vulnerable hospital populations. [Wiki](https://2024.igem.wiki/szpu-china) | [Official Page](https://teams.igem.org/5248)https://static.igem.org/peertube/streaming-playlists/hls/fb8dc93f-6d42-46e1-8778-f5a48bc1e102/45455350-1c42-4e41-a8c3-39377719de07-master.m3u8https://video.igem.org/videos/embed/x4DJKPMD1iW8swUsMzUBtG9000322024-10-10T21:47:19.241ZYES2024 PresentationsNOhttps://video.igem.org/w/7E45nkgG7bqsShpGDyfr8rhttps://video.igem.org/lazy-static/thumbnails/694598ce-15b3-429c-bb54-7cbc75a50075.jpgWaseda-Tokyo: PET TWINS -PETase The Way to ImplementatioN Success- (2024) - Team Presentation [En...**Title:** PET TWINS -PETase The Way to ImplementatioN Success- **Description:** Concerned about the microplastic problem and uncovering various issues in plastic recycling through numerous interviews, Waseda-Tokyo has proposed PET TWINS (PETase The Way to ImplementatioN Success) as a new approach to realize the practical application of PETase. It consists of two components: the BIND-PETase Module and the ElectroCount Biosafety Module. BIND-PETase Module is expected to promote plastic recycling in the future, contributing actively to waste disposal problems and the resolution of the microplastic issue. Additionally, based on evolutionary engineering insights, Waseda-Tokyo designed BIND-bearPETase and verified its superior functionality through wet experiments, energy simulations, and mathematical models. Furthermore, we introduced the concept of the ElectroCount Biosafety Module, which induces the expression of two genes through electrical input. This system is expected to deal with barriers to the introduction of BIND-PETase, and its feasibility has been validated through mathematical models. The integrated system, PET TWINS, will drive the social implementation of PETase. [Wiki](https://2024.igem.wiki/waseda-tokyo) | [Official Page](https://teams.igem.org/5436)https://static.igem.org/peertube/streaming-playlists/hls/35e6fd8d-cf9f-4009-b005-96a6d0cdd203/44ef9e3c-eb69-4e6a-8733-c6f7787f0ad2-master.m3u8https://video.igem.org/videos/embed/7E45nkgG7bqsShpGDyfr8r87102452024-10-10T21:45:27.386ZYES2024 PresentationsNOhttps://video.igem.org/w/vc3nVmeH6jTpdaVDhxYvh4https://video.igem.org/lazy-static/thumbnails/e5efa9c5-6dba-4427-a0d5-01e3df6a956a.jpgBASIS-China: Plastivorous - The Microplastic Degradation Initiative (2024) - Team Presentation [E...**Title:** Plastivorous - The Microplastic Degradation Initiative **Description:** Microplastic particles are not only posing a threat to the ecosystem but also invisibly infiltrating our daily lives. In our efforts, we decided to focus on degrading microplastics using PETase. With the help of AI tools, we successfully designed and constructed sequences of PETase that efficiently degrade PET. To have a sustainable production of the enzymes, we further introduced these sequences into cyanobacteria. The cyanobacteria are then placed in bioreactors alongside rhodobacteria, creating a system capable of breaking down microplastics more effectively and sufficiently. Alongside the achievements within the lab, we also organized a range of different human practice events to support our program development and guide our experiments while conveying our core value and raising public awareness about this invisible threat. This video introduces the 5 cycles of designing, building, testing, and learning of our experiment process and our human practice activities that assisted the experiment process. We hope this video not only showcases the success of our program but also promotes the environmentalist spirit with our vibrant flow of thoughts and motivating achievements. [Wiki](https://2024.igem.wiki/basis-china) | [Official Page](https://teams.igem.org/5236)https://static.igem.org/peertube/streaming-playlists/hls/ec63ab05-f63c-49aa-9fbc-824e2bb37127/ca7f13ce-3744-479b-a5fb-d101b11dd419-master.m3u8https://video.igem.org/videos/embed/vc3nVmeH6jTpdaVDhxYvh490001602024-10-10T21:25:35.484ZYES2024 PresentationsNOhttps://video.igem.org/w/6ZGt2UtZ6yRq3VpXcAB2Rmhttps://video.igem.org/lazy-static/thumbnails/e058f99f-67cf-4f83-9249-dbb6734cbd01.jpgWestview-SanDiego: PET-ty Plastics Begone… FAST! (2024) - Team Presentation [English]**Title:** PET-ty Plastics Begone… FAST! **Description:** In this video, we examine the aspirations and actions of our in-lab research, computational modeling, and human practices teams. We explain our methods and results to paint a picture as to what we have done this season to compare FastPETase and PETase in their ability to degrade PET plastics in simulated marine environments. We analyze our computational models which provide us a better understanding of the efficiency of the enzymes, as well as how we communicated our project with our community, focusing on education. [Wiki](https://2024.igem.wiki/westview-sandiego) | [Official Page](https://teams.igem.org/5338)https://static.igem.org/peertube/streaming-playlists/hls/308c06bb-9809-4503-b4ec-fc7b3bb6500a/87e285ed-42cc-449f-bdf0-707640804ab9-master.m3u8https://video.igem.org/videos/embed/6ZGt2UtZ6yRq3VpXcAB2Rm8860262024-10-10T21:30:45.547ZYES2024 PresentationsNOhttps://video.igem.org/w/kjHD6fGtvMkEeTxPx3t4jrhttps://video.igem.org/lazy-static/thumbnails/225257f9-1a69-4f6c-94d7-7eb40d88a30e.jpgBKEA: Renalzyme (2024) - Team Presentation [English]**Title:** Renalzyme **Description:** Kidney stones affect over 10% of people, with pain often compared to childbirth. The problem with current treatments is their invasive and sometimes painful nature and their cost, making them inaccessible to many. Worse, 50-80% of sufferers experience recurrent stones. To avoid people having to endure having kidney stones multiple times. We propose using GMO Lactic acid bacteria, engineered to express oxalate oxidase. The bacteria will be administered through yogurt since it is a widely consumed beverage in arid parts of the world where low water quality and high temperatures lead to increased kidney stone formation. To prove the concepts behind our idea, we successfully transformed our bacteria and proved the enzymes ability to break down oxalate. Furthermore we designed four new programmes to ease the process of conducting docking simulations for future IGEM'ers. [Wiki](https://2024.igem.wiki/bkea) | [Official Page](https://teams.igem.org/5243)https://static.igem.org/peertube/streaming-playlists/hls/9c7aaf03-9da8-4849-894e-b8b287eb5691/e1165d05-e0d8-4e26-9f4e-e5c62b3af8af-master.m3u8https://video.igem.org/videos/embed/kjHD6fGtvMkEeTxPx3t4jr90001242024-10-10T21:50:49.396ZYES2024 PresentationsNOhttps://video.igem.org/w/pEfqA5GUYDWt7RWrGTpDykhttps://video.igem.org/lazy-static/thumbnails/a2e4d548-b9b8-4064-bce9-c4f1ac98e99f.jpgBYU-Provo: Soil-IQ: An In-plant Soil Nitrate Indicator for Producers in the Deve... (2024) - Team...**Title:** Soil-IQ: An In-plant Soil Nitrate Indicator for Producers in the Developing World **Description:** Farmers in the developing world currently lack affordable, intuitive systems for optimizing fertilizer use. As a result, many under or overfertilize, harming their yields, and damaging the environment. Many sustainable development practices make farmers feel like they have to choose between their livelihoods and the environment, leading to decreased results of efforts to alleviate poverty or to protect the environment. Soil-IQ utilizes a novel nitrate detecting promoter and an intuitive colorimetric reporter to help farmers know when they have fertilized enough to maximize their yields without harming the environment. Designed for farmers and by farmers, Soil-IQ removes the guesswork in fertilizer optimization and helps farmers be both sustainable and more productive. As a result, Soil-IQ helps protect those at most risk from climate change and environmental degradation while simultaneously enabling them to create more resilient and efficient farms, making sustainable development a win-win for both farmers and other stakeholders. [Wiki](https://2024.igem.wiki/byu-provo) | [Official Page](https://teams.igem.org/5380)https://static.igem.org/peertube/streaming-playlists/hls/bf99576c-78a0-4824-9d45-03a64314ae8f/425f5be8-7fe9-4286-ae79-74d0f7509f00-master.m3u8https://video.igem.org/videos/embed/pEfqA5GUYDWt7RWrGTpDyk9010302024-10-10T21:56:24.184ZYES2024 PresentationsNOhttps://video.igem.org/w/mQ7aTudftVuYubP4pyDSS6https://video.igem.org/lazy-static/thumbnails/24e8ddde-6d3d-4ec1-8bf9-26809de12862.jpgBWYA: LUNA Pad (2024) - Team Presentation [English]**Title:** LUNA Pad **Description:** Our project, Luna Pad, addresses the critical issue of late diagnoses of gynecological diseases by transforming menstrual pads into non-invasive screening tools. Integrating test strips that utilize lateral flow assay technology, the pads detect biomarkers such as CA126 and IL-6, indicative of inflammations and cancers. We adopted single-chain variable fragment (scFv) antibodies designs for improved synthesis in E. coli. Designed for ease of use and affordability, the Luna Pad aims to encourage regular health monitoring and early detection, potentially saving lives by prompting necessary medical interventions. [Wiki](https://2024.igem.wiki/bwya) | [Official Page](https://teams.igem.org/5234)https://static.igem.org/peertube/streaming-playlists/hls/a8ae46df-c028-4bb5-9a91-69ea980f89c9/48679ea4-ca4b-478a-9e8c-e06cfeb01961-master.m3u8https://video.igem.org/videos/embed/mQ7aTudftVuYubP4pyDSS68940272024-10-10T21:57:04.149ZYES2024 PresentationsNOhttps://video.igem.org/w/vpzACZ29SKX1Q95u9Z59zMhttps://video.igem.org/lazy-static/thumbnails/6560fd35-e468-4782-975a-c0a49b58032e.jpgSquirrel-Beijing-II: Containing chemical tablet is helpful in repairing damaged ... (2024) - Team...**Title:** Containing chemical tablet is helpful in repairing damaged esophageal epithelial cells after hot pot **Description:** Esophageal squamous cell carcinoma (ESCC) is a serious health concern, especially for people who enjoy spicy foods, like hot pot. In our previous study, by analyzing pre-/post-operative blood samples from clinical ESCC patients, as well as esophageal cancer tissue and paracancerous tissue samples using metabolomics and DIA proteomics technologies, we screen out key fatty acid pathways and sensitive proteins related with fatty acid metabolism, and the imbalanced fatty acid intake leads to the insufficient-expression of key functional proteins, which are necessary in repairing esophageal epithelial cells damaged by hot and spicy stimuli, the level of functional proteins play key roles in inhibiting inflammation and malignant lesions in esophageal tissues. Thus, in our present project, we firstly construct an exogenous plasmid system and transfect it into Escherichia coli to express high-level of functional proteins, then culture damaged esophageal epithelial cells and embed the proteins, to prove the repairing effects of functional proteins in vitro. This method effectively solves a series of esophageal epithelial cells damages caused by hot and spicy stimuli, and eventually integrates into a containing tablet, which brings great hope for reducing the incidence of try ESCC. [Wiki](https://2024.igem.wiki/squirrel-beijing-ii) | [Official Page](https://teams.igem.org/5456)https://static.igem.org/peertube/streaming-playlists/hls/ee23d536-549a-4fb2-8f40-056424ef57f7/65dd2354-4f73-4cd2-bb27-d2f302ef18ab-master.m3u8https://video.igem.org/videos/embed/vpzACZ29SKX1Q95u9Z59zM8300192024-10-10T21:58:56.097ZYES2024 PresentationsNOhttps://video.igem.org/w/cHn6DiFxGfcubRJv5fjfYahttps://video.igem.org/lazy-static/thumbnails/d18afbd7-e640-48a5-b4a4-f22b74684f1f.jpgTU-Delft: NitroBLAST: Laying the foundation for nitrogen fixation (2024) - Team Presentation [Eng...**Title:** NitroBLAST: Laying the foundation for nitrogen fixation **Description:** The Netherlands has been facing a pressing nitrogen crisis for several years. This crisis is largely attributed to the agriculture sector, with over 80% of ammonia emissions coming from manure and chemical fertilizers. The over-use of fertilizers has a detrimental effect on the environment through the deposition of excess nitrogen oxides and ammonia in the ground, excessively enriching the environment with nutrients promoting uncontrolled plant and algal growth, or eutrophication, a form of nutrient imbalance that negatively impacts the local biodiversity. This highlights the need of the hour: a solution for increasing global food supply while maintaining environmental standards. One promising approach to balance the need for fertilizer and the welfare of the environment, is the development of plants that can fix atmospheric nitrogen independently. This innovation would not only reduce the need for synthetic fertilizers and manure but also help mitigate climate change and the nitrogen crisis. TU Delft aims to develop a reliable protocol for transplanting a nitroplast into C. reinhardtii and S. cerevisiae, as a proof-of-concept for transplantation into other eukaryotes. [Wiki](https://2024.igem.wiki/tu-delft) | [Official Page](https://teams.igem.org/5054)https://static.igem.org/peertube/streaming-playlists/hls/5edb0581-11d2-4b62-9c61-e33417775421/f79d18c4-865c-4d75-84da-d7c0e654e0c8-master.m3u8https://video.igem.org/videos/embed/cHn6DiFxGfcubRJv5fjfYa8965362024-10-10T22:13:41.097ZYES2024 PresentationsNOhttps://video.igem.org/w/6KTTLQFppMG3SG3KvK4Utvhttps://video.igem.org/lazy-static/thumbnails/cf6b18b3-bfe1-4f4d-9e43-ae4204c478b5.jpgNJMU-CHINA: “Memory&happiness Puzzle” —Engineered bacteria for treating central ... (2024) - Team...**Title:** “Memory&happiness Puzzle” —Engineered bacteria for treating central nervous system diseases **Description:** In the present study, we engineered probiotics to produce small molecules for treating depression and Alzheimer's disease. For depression, utilizing molecular docking and SPR, we identified inosine as a molecule capable of decoupling SERT-nNOS. We engineered Lactobacillus plantarum L168 to produce inosine by incorporating the key enzyme gsk. The engineered probiotics release inosine in the gut, which then travels through the bloodstream to the brain, disconnecting SERT from nNOS to alleviate depressive symptoms. Regarding Alzheimer's disease，we identified tetrahydrofolate as an effective LilrB3 binder and produce it using the key enzyme sequence folKE. Tetrahydrofolate binds to LilrB3 receptor, preventing APOE4 interaction and inhibiting Aβ deposition. Accordingly, we genetically engineered Lactobacillus plantarum L168 to biosynthesize theanine and niacin, aiming to develop therapy for Alzheimer's disease and depressions, respectively. Our aim is to assist patients suffering from depression and Alzheimer's Disease in reclaiming their cognitive functions and emotional well-being. [Wiki](https://2024.igem.wiki/njmu-china) | [Official Page](https://teams.igem.org/5238)https://static.igem.org/peertube/streaming-playlists/hls/2e9ea7c7-54cd-44c6-8cc5-8b2e627a7a93/f32f071a-764d-4831-892c-3ea656603179-master.m3u8https://video.igem.org/videos/embed/6KTTLQFppMG3SG3KvK4Utv9000162024-10-10T22:11:33.382ZYES2024 PresentationsNOhttps://video.igem.org/w/spuSTAYG6BJRQndEUcoweShttps://video.igem.org/lazy-static/thumbnails/5f11e59c-f005-41cb-a136-bf3f736fc913.jpguOttawa: In-Vivo Biosynthesis of Peptide-Based Therapeutics (GLP1 Agonists) thro... (2024) - Team...**Title:** In-Vivo Biosynthesis of Peptide-Based Therapeutics (GLP1 Agonists) through Nicotiana benthamiana **Description:** The University of Ottawa's iGEM team is proud to present our research findings, contributions, and IHP/ outreach initiatives from this year's Phytogene project. We aim to make in-vivo biopharming a more efficient and sustainable solution for the synthesis of peptide-based pharmaceuticals. Phytogene: Harvesting health, one leaf at a time. [Wiki](https://2024.igem.wiki/uottawa) | [Official Page](https://teams.igem.org/5293)https://static.igem.org/peertube/streaming-playlists/hls/d5d58219-bc09-4fa8-973d-d3ab9a6d657c/b06211b6-24e7-485b-ad7a-804280be3067-master.m3u8https://video.igem.org/videos/embed/spuSTAYG6BJRQndEUcoweS8980422024-10-10T22:12:12.480ZYES2024 PresentationsNOhttps://video.igem.org/w/4CFUdQuPGqe5g4VtF7APawhttps://video.igem.org/lazy-static/thumbnails/759fdd41-33ac-4c7c-b186-019e927affcb.jpgDuke: ATLAS - Antigen Triggered Loop Activation System (2024) - Team Presentation [English]**Title:** ATLAS - Antigen Triggered Loop Activation System **Description:** CAR-T cell therapy has demonstrated success in treating blood-based cancers, but faces challenges in combating solid tumors. ATLAS is a circuit designed to enhance the efficacy of CAR-T cell therapy in cancers. The system addresses antigen loss, a challenge where tumors reduce expression of target antigens, that limits CAR-T efficacy. [Wiki](https://2024.igem.wiki/duke) | [Official Page](https://teams.igem.org/5198)https://static.igem.org/peertube/streaming-playlists/hls/1d6ac7fb-1740-4a5e-8a37-7908d9171514/eb3564e5-82bc-44c2-be67-63b05cd9532a-master.m3u8https://video.igem.org/videos/embed/4CFUdQuPGqe5g4VtF7APaw8980532024-10-10T22:14:51.041ZYES2024 PresentationsNOhttps://video.igem.org/w/dtD7iqd1s4eeLpafNvqE9dhttps://video.igem.org/lazy-static/thumbnails/dbf4f1ed-978a-45c5-8d27-cdb9a2885d62.jpgJU-Krakow: PrymDetect: Engineering the SHERLOCK Platform for Golden Algae Detection (2024) - Team...**Title:** PrymDetect: Engineering the SHERLOCK Platform for Golden Algae Detection **Description:** Prymnesium parvum, commonly known as "golden algae," is the species responsible for the 2022 ecological disaster in the Oder River. Despite the serious threat posed by this organism, current detection methods are time-consuming, tedious, and often ineffective. In our iGEM project, we engineered SHERLOCK (Specific High-sensitivity Enzymatic Reporter Unlocking), a synthetic biology tool, to specifically and effectively detect the Oder strain of Prymnesium parvum. We developed a lateral flow test – PrymFlow – for in-field detection, as well as a 3D-printed device – PrymChip. Additionally, we created SynLOCK – the crRNA Synthesis System for SHERLOCK – which simplifies and standardizes the production of custom crRNAs, making it easier to develop detection tools similar to ours. Overall, our project aims not only to improve the monitoring of water bodies prone to Prymnesium parvum blooms, but also to mitigate their ecological and economic impacts. [Wiki](https://2024.igem.wiki/ju-krakow) | [Official Page](https://teams.igem.org/5087)https://static.igem.org/peertube/streaming-playlists/hls/65099d5d-d668-4326-ba45-923aca99f784/51c5d1c2-3875-4189-802d-6ed887067b40-master.m3u8https://video.igem.org/videos/embed/dtD7iqd1s4eeLpafNvqE9d899014022024-10-10T22:16:32.498ZYES2024 PresentationsNOhttps://video.igem.org/w/6etcsJ7Bn2HTJzCjVzKzkXhttps://video.igem.org/lazy-static/thumbnails/a8a26a01-1d85-46b7-bd46-2aad1aa669be.jpgOneonta: pHish and CHIPs (2024) - Team Presentation [English]**Title:** pHish and CHIPs **Description:** The CHIPS and Science Act is accelerating development of new semiconductor chip fabrication plants throughout the country; two are being built near Oneonta. Water is crucial to the process of manufacturing these chips. Prior to release or recycling, fabricators purify their wastewater, processing millions of gallons of wastewater daily by adjusting pH and removing other contaminants. Real-time pH adjustment is a challenge at this scale. The goal of our project, pHish and CHIPS, is to build a pH-sensitive wastewater system using synthetic biology. In the presence of pH extremes, our device will “turn on” and release buffers to neutralize the water. With this device, pHish and CHIPS aims to promote sustainable manufacturing technologies for semiconductor fabrication. Our team also investigated the ethical and regulatory landscape related to our project and considered how to better engage the public with these issues. [Wiki](https://2024.igem.wiki/oneonta) | [Official Page](https://teams.igem.org/5097)https://static.igem.org/peertube/streaming-playlists/hls/2a5f1f98-dfc1-4f31-959a-994b98379791/c7b8981e-a73c-4073-a329-3860f4528dca-master.m3u8https://video.igem.org/videos/embed/6etcsJ7Bn2HTJzCjVzKzkX8430272024-10-10T22:23:39.381ZYES2024 PresentationsNOhttps://video.igem.org/w/o4AAnBN8jUwh5LvHSgaaHghttps://video.igem.org/lazy-static/thumbnails/1b933efc-7b8d-49cd-bab0-2427be92e073.jpgUZurich: RhyzUp - Drought Resistance Through Biofilm Enhancement (2024) - Team Presentation [Engl...**Title:** RhyzUp - Drought Resistance Through Biofilm Enhancement **Description:** Global food systems are increasingly pressured by climate change, unsustainable agricultural practices and social pressures, such as political instability and population growth. Key challenges including environmental instability and desertification threaten food security. RhyzUp presents a sustainable solution by enhancing biofilm production in rhizobacteria to improve plant resilience under stress conditions like drought. Our project makes use of the symbiotic relationship between plants and rhizobacteria to optimize biofilm formation only when in proximity to plant roots, which improves water retention, nutrient uptake, and protection against environmental stressors. By genetically modifying Pseudomonas sp. IsoF, we aim to increase the production of cyclic di-GMP (c-di-GMP), a second messenger involved in the formation of biofilms. This is done by upregulating diguanylate cyclases (DGCs) to increase c-di-GMP production and inhibiting a phosphodiesterase (PDE) to prevent its degradation. Our goal is to create a sustainable approach by leveraging synthetic biology to enhance agricultural resilience. [Wiki](https://2024.igem.wiki/uzurich) | [Official Page](https://teams.igem.org/5250)https://static.igem.org/peertube/streaming-playlists/hls/b2a999ad-14d2-4a4e-b0cb-b9fc67681cf5/79bd97c5-0cba-4646-8ce6-06f587d9199a-master.m3u8https://video.igem.org/videos/embed/o4AAnBN8jUwh5LvHSgaaHg89501112024-10-10T22:28:08.479ZYES2024 PresentationsNOhttps://video.igem.org/w/92qkoGM6mSKbmJQMFFCHiYhttps://video.igem.org/lazy-static/thumbnails/9a9e6c8d-a310-4d4b-8934-dca195245303.jpgWageningenUR: miRADAR: a paper-based test to simplify MS diagnosis (2024) - Team Presentation [En...**Title:** miRADAR: a paper-based test to simplify MS diagnosis **Description:** Multiple Sclerosis (MS) is a neurological disease that impacts nearly 3 million people worldwide. For 10% - 30% of patients in the Netherlands alone, proper diagnosis can take months or even years due to the lack of a specific MS biomarker. To simplify MS diagnosis, miRADAR designed an accessible diagnostic test based on dysregulated miRNA patterns in blood. To detect these miRNAs, our test consisted of miRNA amplification, an RNA threshold detection system, and output signal generation using toehold switch logic gate circuits. Through multiple models we found eight unique miRNA biomarkers distinguishing MS from similar diseases, and designed optimal logic gate circuits. As a proof-of-concept, we developed a cell-free paper-based test that successfully detected an MS-relevant miRNA. With our test, we provide a modular framework for miRNA-detection to improve diagnosis of MS and many other diseases. [Wiki](https://2024.igem.wiki/wageningenur) | [Official Page](https://teams.igem.org/5106)https://static.igem.org/peertube/streaming-playlists/hls/40fbd980-7b2e-4af3-adfd-f36b37eaf886/17787bcd-466b-4e37-afca-dc843d8a2875-master.m3u8https://video.igem.org/videos/embed/92qkoGM6mSKbmJQMFFCHiY73752582024-10-10T22:24:31.039ZYES2024 PresentationsNOhttps://video.igem.org/w/5HFicdwEDJuXsZG7JVKPeRhttps://video.igem.org/lazy-static/thumbnails/774ba17e-8cd6-4e95-9281-aa3b79e8a313.jpgUESTC-China: SPETEX - A specialized, precise, and efficient way to exterminate PET. (2024) - Team...**Title:** SPETEX - A specialized, precise, and efficient way to exterminate PET. **Description:** The UESTC-China research team has successfully developed an innovative colorimetric biosensor utilizing microplastic anchoring peptides, thereby providing a rapid and user-friendly method for the detection of microplastics. Furthermore, by employing advanced synthetic biology techniques, the research team implemented a streamlined "one-pot" process that integrates a surface display system with a multi-enzyme system to convert PET plastic waste into high-value vanillin, thus fostering environmental sustainability. Through the integration of cutting-edge technologies, including machine learning and directed evolution, the project significantly improved the detection accuracy of the anchoring peptides as well as the efficiency of PET plastic degradation processes. Ultimately, this project realized an integrated solution that encompasses both detection and degradation, complemented by real-time data visualization, thereby offering a comprehensive and sustainable framework for the reutilization of plastic waste. [Wiki](https://2024.igem.wiki/uestc-china) | [Official Page](https://teams.igem.org/5487)https://static.igem.org/peertube/streaming-playlists/hls/26364439-591f-4b97-a034-2c015ffab487/ada93fe8-4e76-4a4f-a1cc-173ed033683f-master.m3u8https://video.igem.org/videos/embed/5HFicdwEDJuXsZG7JVKPeR8980412024-10-10T22:30:36.158ZYES2024 PresentationsNOhttps://video.igem.org/w/4imnXoBgBUXXvheuaLdkNkhttps://video.igem.org/lazy-static/thumbnails/b2063578-736a-4462-83ff-dd847d04b83d.jpgAustin-utexas: Gluten Gobblers (2024) - Team Presentation [English]**Title:** Gluten Gobblers **Description:** Welcome to the Gluten Gobbler’s journey to develop an engineered probiotic solution for people with celiac disease. For millions, a single bite can lead to intense symptoms, and even foods labeled “gluten-free” are often risky. Driven by Austin’s vibrant and innovative community, we are using synthetic biology to engineer probiotic bacteria to break down gluten’s troublesome subunit, gliadin, in the gut. This aims to reduce the side effects of cross-contamination. From lab work to community engagement, our approach is holistic combining science with real world insights to improve the lives of those affected. Join us for an in-depth look at our project! [Wiki](https://2024.igem.wiki/austin-utexas) | [Official Page](https://teams.igem.org/5119)https://static.igem.org/peertube/streaming-playlists/hls/1ab79e68-e44b-4227-91a5-7e9adcb74ceb/094afd45-2eee-40a6-914a-2cd8bda6c0bb-master.m3u8https://video.igem.org/videos/embed/4imnXoBgBUXXvheuaLdkNk8990992024-10-10T22:36:57.462ZYES2024 PresentationsNOhttps://video.igem.org/w/pGJTGcPxwkTQVdCh8LcqwShttps://video.igem.org/lazy-static/thumbnails/b42d2d14-ac8c-420d-b685-498f71c02e0e.jpgSquirrel-CHN: Development of weight loss probiotics (2024) - Team Presentation [English]**Title:** Development of weight loss probiotics **Description:** Our project was inspired by a team member’s father who used semaglutide injections for weight loss. With the growing global obesity issue, we aimed to address it by developing a plasmid based on Escherichia coli Nissle 1917, incorporating fat-reducing, muscle-building, and suicide systems, and validating their feasibility. The fat-reducing system includes GLP-1 secretion and DPP-4 protein inhibitor secretion systems; the muscle-building system includes Bimagrumab secretion; and the suicide system includes an arabinose-induced system and a low-temperature induction system to minimize gene leakage risks. Our goal is to produce this probiotic as a powder to help obesity patients achieve both fat loss and muscle gain, while reducing the discomfort and inconvenience of traditional weight loss methods. [Wiki](https://2024.igem.wiki/squirrel-chn) | [Official Page](https://teams.igem.org/5083)https://static.igem.org/peertube/streaming-playlists/hls/bff25f66-91bd-4af3-80fe-65e4ef624c36/35c6b079-51c9-4866-8e1b-5118462ecec5-master.m3u8https://video.igem.org/videos/embed/pGJTGcPxwkTQVdCh8LcqwS9000192024-10-10T22:39:56.466ZYES2024 PresentationsNOhttps://video.igem.org/w/fC4L4G9Ty7FLtLjND2pHWfhttps://video.igem.org/lazy-static/thumbnails/a53fbf27-6e4f-42db-ae0d-efdc9d422853.jpgCornell: Oncurex - Biosynthesis of Ursolic Acid for Oncology (2024) - Team Presentation [English]**Title:** Oncurex - Biosynthesis of Ursolic Acid for Oncology **Description:** Team Cornell presents Oncurex for their 2024 iGEM season project, celebrating their 15th anniversary! [Wiki](https://2024.igem.wiki/cornell) | [Official Page](https://teams.igem.org/5059)https://static.igem.org/peertube/streaming-playlists/hls/766908b2-29d5-489b-a9b6-4863497fdc56/067ec4fd-5401-4599-b5e1-36e92d9fa786-master.m3u8https://video.igem.org/videos/embed/fC4L4G9Ty7FLtLjND2pHWf81701112024-10-10T22:46:39.795ZYES2024 PresentationsNOhttps://video.igem.org/w/qTkFMRjgjXz1vZQ9QYzwdHhttps://video.igem.org/lazy-static/thumbnails/74b5e6c8-b5ce-47a5-9fd3-732a79a9ccc6.jpgLatvia-Riga: HypoSense - a hypoxia-responsive biosensor for precision tissue mic... (2024) - Team...**Title:** HypoSense - a hypoxia-responsive biosensor for precision tissue microenvironment profiling **Description:** The complex relationship between low oxygen levels (hypoxia) and cellular function plays a key role in many biological processes and diseases. Our project aims to create a biosensor to quantitatively measure cellular oxygen levels and help better understand how hypoxia changes in the microenvironment, especially in tumors. Harnessing the hypoxia-inducible factor (HIF) pathway, we engineered yeast reporter cells that emit a fluorescent signal under hypoxia. This foundational research has the potential to help us better understand how hypoxic conditions influence metabolic adaptation, gene expression, and cellular responses. By adjusting the number of hypoxia responsive elements (HRE) in our biosensor, we aim to build a flexible tool for high-speed screening and analysis. This work not only contributes to our knowledge of hypoxia but also lays the groundwork for future medical applications, potentially guiding treatments for diseases affected by low oxygen conditions. [Wiki](https://2024.igem.wiki/latvia-riga) | [Official Page](https://teams.igem.org/5415)https://static.igem.org/peertube/streaming-playlists/hls/c986645e-608c-4445-9db0-3680c8a822c1/f513e710-4907-4ed9-85c1-3e2aba6f4b6a-master.m3u8https://video.igem.org/videos/embed/qTkFMRjgjXz1vZQ9QYzwdH6570202024-10-10T22:40:55.582ZYES2024 PresentationsNOhttps://video.igem.org/w/9QWExnNCFSWJWbsRTFEZDdhttps://video.igem.org/lazy-static/thumbnails/af1e7ba1-18f2-4109-9aa6-a9df6bd07233.jpgBielefeld-CeBiTec: Next-Generation Prime Editing as Cystic Fibrosis Gene Therapy (2024) - Team Pr...**Title:** Next-Generation Prime Editing as Cystic Fibrosis Gene Therapy **Description:** We are excited to present: PreCyse – our precise RNA-based gene therapy platform to fight cystic fibrosis! Developed by the Bielefeld iGEM team, PreCyse integrates two innovative components: PrimeGuide, which utilizes the advanced prime editing technology for targeted and accurate correction of F508del of the CFTR gene, and AirBuddy, a specialized SORT lipid nanoparticle (LNP) system designed for efficient and targeted mRNA delivery directly to lung tissue. By combining these cutting-edge methods, we aim to create a highly specific and effective therapeutic approach for cystic fibrosis, pushing the boundaries of RNA-based gene therapy. We're eager to contribute to the advancement of precision medicine and bring new hope to those affected by cystic fibrosis. [Wiki](https://2024.igem.wiki/bielefeld-cebitec) | [Official Page](https://teams.igem.org/5247)https://static.igem.org/peertube/streaming-playlists/hls/479e7f99-6931-47bc-9193-d4367beba4f2/e316295a-66e4-45bd-a979-c030b806b62c-master.m3u8https://video.igem.org/videos/embed/9QWExnNCFSWJWbsRTFEZDd90057752024-10-10T22:47:04.849ZYES2024 PresentationsNOhttps://video.igem.org/w/8VKev4BLoCtxxbkyc7hqo9https://video.igem.org/lazy-static/thumbnails/359fc62d-9bd5-4340-aa7b-fcbf4c488990.jpgBGI-MammothEdu-South: Petalglow (2024) - Team Presentation [English]**Title:** Petalglow **Description:** Anxiety disrupts the ability to relax, leading to difficulties in falling asleep. Traditional night lights, which many rely on for comfort. Exposure to light before bed can suppress melatonin levels, making it harder to fall asleep. PetalGlow was designed to offer a unique and holistic approach to mental well-being. At daytime, PetalGlow incorporates the therapeutic benefits of horticultural therapy. It arrives as a young plant, ready to grow under your care. Daily tasks like watering and caring for PetalGlow's growth create a mindful routine that alleviates mild anxiety and stress, promotes relaxation, and enhances mood. As night falls, PetalGlow takes its therapeutic effects a step further by emitting a soft, calming bioluminescent light that creates an ideal pre-sleep environment. Unlike harsh night lights, PetalGlow’s subtle glow provides just enough illumination to ease you into a restful state without disrupting the darkness needed for sleep. [Wiki](https://2024.igem.wiki/bgi-mammothedu-south) | [Official Page](https://teams.igem.org/5218)https://static.igem.org/peertube/streaming-playlists/hls/40310898-672f-4a0a-bb56-882067ce52a4/0c82dc9b-6907-4eeb-b501-43fe49f66fba-master.m3u8https://video.igem.org/videos/embed/8VKev4BLoCtxxbkyc7hqo98875922024-10-10T22:57:28.250ZYES2024 PresentationsNOhttps://video.igem.org/w/csSQE3x1MpDvnFrCjNBPgPhttps://video.igem.org/lazy-static/thumbnails/b77b8cd4-ad9b-4c0a-8e05-2a4435c852fa.jpgjky-wuhan-china: PfAgo-Based Human Enterovirus EV71V Detection (2024) - Team Presentation [English]**Title:** PfAgo-Based Human Enterovirus EV71V Detection **Description:** Hand, foot and mouth disease (HFMD) is a common infectious disease caused by enterovirus, such as EV71,which is common in children. Due to the immature immune system and imperfect hygiene habits of infants and young children, the disease is easy to spread in this vulnerable group and lead to serious consequences. We use a novel programmable nuclease Argonaute and synthetic biology techniques to develop a simple, rapid and accurate assay. The speed and affordability of the method will ensure that all educational institutions and medical institutions can use it, and it will better improve the prevention and control of infectious diseases in epidemic education institutions. [Wiki](https://2024.igem.wiki/jky-wuhan-china) | [Official Page](https://teams.igem.org/5498)https://static.igem.org/peertube/streaming-playlists/hls/5cd531a0-f570-4ce2-bb5e-ff080dcf7b49/da7dbe34-df68-48c3-ab81-4a7c96a4bd13-master.m3u8https://video.igem.org/videos/embed/csSQE3x1MpDvnFrCjNBPgP729062024-10-10T23:09:14.022ZYES2024 PresentationsNOhttps://video.igem.org/w/eA9Ti4sZE5DbBaMiTqL642https://video.igem.org/lazy-static/thumbnails/c3814681-2b48-470c-8d4c-6beb071b84d2.jpgUMA-MALAGA: AflaxOFF - From the field to human health (2024) - Team Presentation [English]**Title:** AflaxOFF - From the field to human health **Description:** In this video, we introduce AflaxOFF, a project we have developed to tackle aflatoxin B1 (AFB1), a harmful toxin produced primarily by Aspergillus fungi and commonly found in foods like cereals and fruits. AFB1 poses serious risks to human health, including its association with liver cancer and immune system dysfunction. Using synthetic biology, we have engineered a dual-action organism that can both detect AFB1 contamination in food and capture it within the body, offering protection before it can cause harm. We explain how we initially designed a bacterial molecular construct to sense and capture AFB1, whose theoretical foundations we later applied to develop a yeast construct capable of sensing AFB1 and acting as a "sponge" to capture the toxin. This system could be further modified and implemented in other areas of work and research in the future. We also collaborated with local companies and applied a Human Practices framework to ensure our project addresses real-world needs in agriculture and public health. Beyond the science, we have worked to raise awareness through public outreach, creating educational tools like video games and illustrated books to spread knowledge about synthetic biology. By developing a strategy to engage with individuals with intellectual disabilities, we are also helping empower everyone to be part of the solution. Join us as we take you through our journey, from the lab to real-world impact, and show how AflaxOFF can help create a safer future. [Wiki](https://2024.igem.wiki/uma-malaga) | [Official Page](https://teams.igem.org/5466)https://static.igem.org/peertube/streaming-playlists/hls/6e0b90e2-65e7-4017-845c-38f6f4577363/83d81e27-2f4e-44bf-b4bb-998ac9f257ab-master.m3u8https://video.igem.org/videos/embed/eA9Ti4sZE5DbBaMiTqL6428980162024-10-10T23:01:26.564ZYES2024 PresentationsNOhttps://video.igem.org/w/5Go16ve3rMDGf7npwKNZuvhttps://video.igem.org/lazy-static/thumbnails/987bf533-a3de-4ea9-9419-aee8e46cd5b6.jpgUCSC: LiFT: Accelerating Cyanobacterial Transformation through Induced Homologou... (2024) - Team...**Title:** LiFT: Accelerating Cyanobacterial Transformation through Induced Homologous Repair **Description:** Cyanobacteria have tremendous potential as biofactories, and Limnospira Fusiformis, commonly known as Spirulina, can serve as a highly nutritious source for supplements in infant formula. However, L. Fusiformis, and various cyanobacteria, face hurdles in transformation due to their polyploid nature and native Restriction Modification Systems (RMS), which prevent stable expression of inserts from being achieved. To address this, LiFT created techniques to accelerate the rate of integration in cyanobacteria. By inducing double-stranded breaks in the copies of the chromosome using endonuclease proteins, gene inserts with site-specific homology arms can be afforded more time to bind and repair sites. We developed three workflows in model organism Synechococus Elongatus 2973, utilizing CRISPR-Cas12a and the novel Argonaute protein from Clostridium Butyricum. Our parts were codon-optimized and avoided underrepresented, and therefore oft-targeted by RMSs, sequence motifs from the target organism's genome. LiFT aims to transform L. Fusiformis for the cheap production of premium supplements for infant nutrition and created an adaptable workflow to accelerate transformations of various other non-model organisms. [Wiki](https://2024.igem.wiki/ucsc) | [Official Page](https://teams.igem.org/5149)https://static.igem.org/peertube/streaming-playlists/hls/2607dd4b-4833-40fc-b8a9-49a4bf27f759/53382177-ac81-405b-b274-7c9516856a25-master.m3u8https://video.igem.org/videos/embed/5Go16ve3rMDGf7npwKNZuv8830352024-10-10T23:00:55.637ZYES2024 PresentationsNOhttps://video.igem.org/w/jy3R73bnbKQshqt8vu3rF5https://video.igem.org/lazy-static/thumbnails/31030ae9-5eed-46ef-a3dd-fb62f8d0b272.jpgMIT: Metaplate: Targeting Metastatic Cancer One Cluster at a Time (2024) - Team Presentation [Eng...**Title:** Metaplate: Targeting Metastatic Cancer One Cluster at a Time **Description:** The 2024 MIT iGEM team focused on developing a therapeutic to target and degrade CTC clusters to reduce metastatic potential in cancer patients. The team's innovative solution involves engineering platelets to recognize and bind to both CTCs and neutrophils. Once both binding events occur, the engineered platelets release cytotoxic signals to degrade the CTC clusters, thereby aiming to reduce metastasis. We conducted multiple proof-of-concept experiments testing the Syn-Notch and CC-GEMS systems using HEK293 cells as a model and documented our parts collection of robustly tested Syn-Notch systems in the iGEM Registry. In addition, our team established frameworks for both diffusion gradient modeling and background architecture for computational fluid modeling. As part of our human practice, we compiled a Genomic Privacy Handbook and collaborated with physicians and medical researchers to offer scientific and bioethical frameworks for both present and future iGEM teams. [Wiki](https://2024.igem.wiki/mit) | [Official Page](https://teams.igem.org/5345)https://static.igem.org/peertube/streaming-playlists/hls/963e0d02-1733-41eb-ab36-8c3a6acb5dce/ece3cc73-dfbd-42e6-b162-ca96e9e4c175-master.m3u8https://video.igem.org/videos/embed/jy3R73bnbKQshqt8vu3rF58770712024-10-10T23:04:15.526ZYES2024 PresentationsNOhttps://video.igem.org/w/9phzCu3NgCjniMRMzx6zn4https://video.igem.org/lazy-static/thumbnails/8fda97f2-8149-40df-91d1-7b02ade92d1a.jpgTJUSLS-China: PETase Powerhouse: Crafting the Ultimate Enzyme Factory for PET De... (2024) - Team...**Title:** PETase Powerhouse: Crafting the Ultimate Enzyme Factory for PET Demolition **Description:** PET is a widely used plastic. However, its extensive use has also caused severe environmental pollution. In this project, through multiple rounds of engineering cycles, we optimized the promoter, signal peptide, and culture conditions, successfully constructing a highly efficient ICCG expression system. First, we created an ICCG-GFP fusion protein and used fluorescence intensity to characterize ICCG protein expression levels. During promoter optimization, we generated a Mtac promoter library through random mutagenesis and used a CNN-LSTM model to design and optimize the novel DMtac promoter. For the signal peptide, we screened and optimized the nfaA signal peptide and designed MnfaA mutants using a Markov transfer frequency matrix model. By combining high-throughput screening systems with predictive models, we significantly improved the expression efficiency of ICCG, providing valuable components and tools for future synthetic biology research. [Wiki](https://2024.igem.wiki/tjusls-china) | [Official Page](https://teams.igem.org/5292)https://static.igem.org/peertube/streaming-playlists/hls/44096f04-6e6a-4973-9304-b0ba953f9e81/db2d48c2-53f1-447b-8d60-165217827962-master.m3u8https://video.igem.org/videos/embed/9phzCu3NgCjniMRMzx6zn48840272024-10-10T23:06:32.869ZYES2024 PresentationsNOhttps://video.igem.org/w/u1suBvxgQ8TzUqBV7T6xcQhttps://video.igem.org/lazy-static/thumbnails/4c634744-9873-4ad1-9c11-7c94c43e5571.jpgRadboud-University: InfinityF∞ - intranasal mRNA delivery of Factor VIII using i... (2024) - Team...**Title:** InfinityF∞ - intranasal mRNA delivery of Factor VIII using ionizable lipid nanoparticles **Description:** As the first iGEM team to represent Radboud University, we are beyond excited to present what we have been working on for the last year. InfinityF∞ delivers the mRNA sequence for factor VIII encapsulated by a lipid nanoparticle that serves as a carrier for the medicine. When the nanoparticle reaches its target in the body, the cells will take it up into an endosome and break the LNP preserving the genetic sequence inside. After that, the cell produces the protein factor VIII from the mRNA and releases it into the blood. The factor VIII mRNA is produced with in vitro transcription using factor VIII pcDNA as a template. Our ionizable lipid nanoparticles contain synthetic lipids as well as an ionizable lipid, which is essential for the release of the mRNA in the cells. [Wiki](https://2024.igem.wiki/radboud-university) | [Official Page](https://teams.igem.org/5342)https://static.igem.org/peertube/streaming-playlists/hls/e2d035a6-0902-4c15-8ed7-13b10e2e1f82/1319df73-7832-49e2-a363-df2d8d4b7b05-master.m3u8https://video.igem.org/videos/embed/u1suBvxgQ8TzUqBV7T6xcQ9000312024-10-10T23:13:42.615ZYES2024 PresentationsNOhttps://video.igem.org/w/f26iR8xyCzpNdQjcth8aGAhttps://video.igem.org/lazy-static/thumbnails/73f079cf-c79d-49ec-80a6-f7fc263b4892.jpgKeystone: Application and development of nanomedical drugs based on RNA interfer... (2024) - Team...**Title:** Application and development of nanomedical drugs based on RNA interference technology in inhibiting pan allergens **Description:** Populus tomentosa allergy, common in Beijing and northeastern China during spring and fall, often leads to allergic rhinitis and asthma (Liu et al., 2010). Our product utilizes RNA interference (RNAi) technology to suppress two key pan-allergenic proteins: Heat Shock Protein 70 (HSP 70) and Profilin 3 (PFN 3), effectively reducing allergic reactions. The siRNA vector is delivered via polyethyleneimine-modified carbon quantum dots (PEI-CDs), a nanoparticle system that facilitates siRNA delivery into plant cells. We are exploring leaf and trunk injection methods for real-life applications, with potential for a spray method in the future to target a wider range of plant species. The targeting of HSP 70 and PFN 3 provides a generalized application for trees with these allergenic proteins. [Wiki](https://2024.igem.wiki/keystone) | [Official Page](https://teams.igem.org/5375)https://static.igem.org/peertube/streaming-playlists/hls/7186f4bc-7e77-4b02-ba77-fddc3868792e/31062dbb-f5cc-4aaa-b2fb-3efbfcf675a6-master.m3u8https://video.igem.org/videos/embed/f26iR8xyCzpNdQjcth8aGA9000542024-10-10T23:14:56.728ZYES2024 PresentationsNOhttps://video.igem.org/w/uyR8jAJB2iRH8Qr7WqtTYwhttps://video.igem.org/lazy-static/thumbnails/2b2d7f36-bb7c-46a9-8fff-2d988dd54a62.jpgWHHS-China: Engineered E. coli for Comprehensive Glyphosate Degradation via Tran... (2024) - Team...**Title:** Engineered E. coli for Comprehensive Glyphosate Degradation via Transport, C-P Cleavage, and AMPA Detoxification **Description:** This project aims to create genetically engineered E. coli strains for efficient and comprehensive glyphosate degradation. The system integrates three key modules: a glyphosate transport mechanism using the phnE1 and phnE2 genes to facilitate rapid uptake, a degradation pathway via phnJ for C-P bond cleavage that converts glyphosate into non-toxic phosphate and glycine, and an AMPA detoxification system employing the phnO gene to further degrade the harmful byproduct aminomethylphosphonic acid (AMPA). Together, these modules ensure efficient glyphosate absorption, degradation, and detoxification. Experimental data confirm the strain’s ability to significantly reduce glyphosate and AMPA levels, providing an environmentally friendly solution for herbicide contamination in agricultural settings. [Wiki](https://2024.igem.wiki/whhs-china) | [Official Page](https://teams.igem.org/5448)https://static.igem.org/peertube/streaming-playlists/hls/e755f54e-65df-496b-ad1e-eec1ad530472/55e7011a-8c78-460c-bc82-1bde12985a38-master.m3u8https://video.igem.org/videos/embed/uyR8jAJB2iRH8Qr7WqtTYw895082024-10-10T23:17:02.500ZYES2024 PresentationsNOhttps://video.igem.org/w/v78RpaowKzn76F1DZXFXEMhttps://video.igem.org/lazy-static/thumbnails/8db6ca9b-8898-4504-bf3b-c5ba497f1766.jpgICJFLS: Development of a bacteria detecting biosensor in fridge (2024) - Team Presentation [English]**Title:** Development of a bacteria detecting biosensor in fridge **Description:** We constructed a biosensor using cell free system hydrogel containing RNA toehold switch, which was the main component of a detector used for detecting pathogenic bacteria in refrigerator. It the bacteria tall to the hydrogel in fridge, it will switch on the RNA toehold to express LacZ gene and produce B-galactosidase, catalyzing the blue product which is detected by the detector. This information is scanned by RGB color sensor and converted to the electric signal which is transferred to a pilot lamp, making the red LED light up on the screen of refrigerator door, reminding people to clean or disinfect the refrigerator in time. It is very convenient and beneficial for people to use it in refrigerator at home. [Wiki](https://2024.igem.wiki/icjfls) | [Official Page](https://teams.igem.org/5074)https://static.igem.org/peertube/streaming-playlists/hls/ebb45292-9cc1-46b3-b001-9c8ceb3c16ed/5476e974-21ce-40d7-9e70-88ad9e7a189a-master.m3u8https://video.igem.org/videos/embed/v78RpaowKzn76F1DZXFXEM8940212024-10-10T23:19:19.406ZYES2024 PresentationsNOhttps://video.igem.org/w/oXTi4ezVKPZeDdm5uaBfVehttps://video.igem.org/lazy-static/thumbnails/7898fcc4-425a-4f50-abf7-a2c5e13a045c.jpgDNHS-SanDiego-CA: FluoroFind (2024) - Team Presentation [English]**Title:** FluoroFind **Description:** A lack of biosensors is a major limitation in biological innovation. This year, our team aims to advance biosensor development by screening promoters against several molecules to identify the best measurement devices. We also aim to spread awareness about synthetic biology through community engagement, app development, and social media. [Wiki](https://2024.igem.wiki/dnhs-sandiego-ca) | [Official Page](https://teams.igem.org/5240)https://static.igem.org/peertube/streaming-playlists/hls/b9f691a7-6363-4a7e-8dc4-6010bb65cf8f/10378cb9-df2b-48c4-8383-74a42752e92e-master.m3u8https://video.igem.org/videos/embed/oXTi4ezVKPZeDdm5uaBfVe7180312024-10-10T23:19:22.307ZYES2024 PresentationsNOhttps://video.igem.org/w/bZJxq89nA8Qnwmjhb9tkMmhttps://video.igem.org/lazy-static/thumbnails/0866040c-0dff-4592-bcc7-74170afbf7a5.jpgDKU: Tampon X (2024) - Team Presentation [English]**Title:** Tampon X **Description:** Toxic Shock Syndrome (TSS) is a rare, sometimes fatal implication of certain types of bacterial infections. The use of tampons and other devices, such as menstruation cups, is one of the identified risk factors for TSS. Currently, preventative measures for menstruation related TSS are limited to avoiding the use of tampons and other invasive menstruation products. Therefore, Tampon X aims to design a tampon product that prevents menstruation related TSS by introducing TSS-suppressing probiotics to help maintain and improve the health of the vaginal microbiome. [Wiki](https://2024.igem.wiki/dku) | [Official Page](https://teams.igem.org/5076)https://static.igem.org/peertube/streaming-playlists/hls/590affab-d1e5-4f41-80c8-1c5a1a7f0bea/4085c358-bcdc-42bc-9db8-68b2be67b9a6-master.m3u8https://video.igem.org/videos/embed/bZJxq89nA8Qnwmjhb9tkMm7310162024-10-10T23:37:23.267ZYES2024 PresentationsNOhttps://video.igem.org/w/913pCWxV2NtMfrQyEu8UNohttps://video.igem.org/lazy-static/thumbnails/e1edfeba-af49-4bed-aa40-f47728232d78.jpgZJUT-China: Opening the Door to Self-Induced Chemical Synthesis with Riboswitches (2024) - Team P...**Title:** Opening the Door to Self-Induced Chemical Synthesis with Riboswitches **Description:** Our project addresses critical challenges in the biomanufacturing industry, where dependence on costly exogenous inducers limits production efficiency. We have developed a self-induced production system that utilizes riboswitches and the LacI repressor (New Composite Parts), incorporating two distinct lysis mechanisms (New Improved Parts). By employing these innovative riboswitch systems, we improved the expression of biosynthesis gene clusters in response to their products, leading to a significant increase in product titers: riboflavin production reached 414.31 mg/L (versus 66.16 mg/L in the control), while TPP production reached 364.59 mg/L (versus 65.14 mg/L). Additionally, our improved thermally inducible lysis system achieved a lysis rate that was 30.45% higher than that of the previously constructed arabinose-induced system. We also optimized a quorum-sensing (QS) lysis system, which outperformed the earlier light-sensing system in both lysis efficiency and operational effectiveness. These innovations provide novel solutions for enhancing efficiency in biomanufacturing, reducing costs, and streamlining operational workflows. [Wiki](https://2024.igem.wiki/zjut-china) | [Official Page](https://teams.igem.org/5377)https://static.igem.org/peertube/streaming-playlists/hls/40ca97cd-317e-48eb-94c3-bcfa1827e16a/d4524d4d-c806-404a-b0eb-b727a15b6768-master.m3u8https://video.igem.org/videos/embed/913pCWxV2NtMfrQyEu8UNo6890362024-10-10T23:38:22.488ZYES2024 PresentationsNOhttps://video.igem.org/w/7P1ZvCizx1hE8RxX6mxZNbhttps://video.igem.org/lazy-static/thumbnails/c78e128d-f5f1-4972-89b7-8a9116ff7eee.jpgPrinceton: BOOMCOLI: A Possible Therapeutic for Ulcerative Colitis (2024) - Team Presentation [En...**Title:** BOOMCOLI: A Possible Therapeutic for Ulcerative Colitis **Description:** The motivation of our project is to create a new model for therapeutic treatment that would use bioengineered E. coli probiotics for the targeted and controlled release of therapeutics in the colon. Specifically, we want to treat ulcerative colitis, a type of Inflammatory bowel disease (IBD). Our treatment could be applied to a variety of diseases local to the large intestine, including colon cancer. Furthermore, if this project succeeds, the plasmids can be transferred to other organisms and used in various organs to treat a larger variety of diseases. This therapeutic model has profound implications, providing a realistic way to utilize the best aspects of bioengineered therapy in vivo. Our BOOMcoli are designed to be fast acting, highly specific, and low impact, a probiotic that can be taken when symptoms arise and quickly work to release targeted therapy in single, clean doses. We plan on recognizing target cells by levels of calprotectin, and therefore levels of inflammation. Our engineered probiotic will also bind at sites along the colon and create a biofilm, localizing in areas of inflammation. Then we will utilize quorum sensing, a concentration-based way of bacterial communication. Once the concentration of bacteria is high enough (above a specific threshold set via promoter strength) to produce the signal necessary, the bacteria will respond by lysing in unison and releasing the respective therapeutic only in these targeted areas. Our project builds on ideas from last year’s Princeton iGEM team by applying the stick and secrete technology to the treatment of localized diseases such as cancer or IBD. [Wiki](https://2024.igem.wiki/princeton) | [Official Page](https://teams.igem.org/5180)https://static.igem.org/peertube/streaming-playlists/hls/37276675-1122-4740-8759-a055fb51cff2/e96cf566-c424-4f53-853e-0c058443cd3e-master.m3u8https://video.igem.org/videos/embed/7P1ZvCizx1hE8RxX6mxZNb5800362024-10-11T00:21:32.463ZYES2024 PresentationsNOhttps://video.igem.org/w/3mDKHh8T9mpH7551ncm8yXhttps://video.igem.org/lazy-static/thumbnails/031299a4-6637-4454-882e-7bf25f60c918.jpgNASSZ: Limonene and Vanillin synthesis in DH5α with pDawn gene regulatory system (2024) - Team Pr...**Title:** Limonene and Vanillin synthesis in DH5α with pDawn gene regulatory system **Description:** The story of our turbulent year as first time iGEMers. [Wiki](https://2024.igem.wiki/nassz) | [Official Page](https://teams.igem.org/5163)https://static.igem.org/peertube/streaming-playlists/hls/13146b52-e121-40fb-8887-a50fa9952a63/5480a4ca-7857-48ae-9fb3-f17c1596ea03-master.m3u8https://video.igem.org/videos/embed/3mDKHh8T9mpH7551ncm8yX8940142024-10-11T00:24:14.108ZYES2024 PresentationsNOhttps://video.igem.org/w/aSrqMeSLKgzaZgDFFevmY1https://video.igem.org/lazy-static/thumbnails/dd2737f0-aec1-4e1f-acf7-3e76c337037a.jpgNTU-Singapore: Mutagenesis Mystery- optimizing T7 through evolution by NTU-SG (2024) - Team Prese...**Title:** Mutagenesis Mystery- optimizing T7 through evolution by NTU-SG **Description:** In our project, we developed a robust reporter system, aimed at evaluating the wild-type T7RNAP and the ancestral sequences generated. Through the iGEM engineering cycle and our engineering success, we were also able to refine the expression of T7RNAP to stable levels through the addition of regulatory elements such as antisense oligonucleotides to knockdown the expression of T7 RNAP. With this compatible expression and reporter system, our project aims to generate a diverse library of RNAP variants using different methods such as site-directed mutagenesis, ancestral reconstruction, and random mutagenesis. These variants will then be screened using our reporter system to identify for better-performing variants. [Wiki](https://2024.igem.wiki/ntu-singapore) | [Official Page](https://teams.igem.org/5401)https://static.igem.org/peertube/streaming-playlists/hls/4fed1b45-d04a-4f2d-9e11-f09b22cc2c78/4b5e6451-4883-4c24-aed0-786509f2f539-master.m3u8https://video.igem.org/videos/embed/aSrqMeSLKgzaZgDFFevmY18870182024-10-11T01:07:09.923ZYES2024 PresentationsNOhttps://video.igem.org/w/n2wz7VFRCyVP94PL8RGBjrhttps://video.igem.org/lazy-static/thumbnails/ebf52070-bb9e-46b5-a42d-11c48084c546.jpgJLU-NBBMS: BIOTARGET: Bacterial Iterative Optimized Therapy and Assisted Resista... (2024) - Team...**Title:** BIOTARGET: Bacterial Iterative Optimized Therapy and Assisted Resistance Guard Enhancement Technology **Description:** JLU-NBBMS 2024 has developed the BIOTARGET, an advanced biological system iteratively engineered using bacteria. This system integrates modular design concepts from synthetic biology, RNAi technology, attenuated Salmonella, and nanotechnology to precisely target and treat chemotherapy-resistant cancer cells. It enhances tumor recognition with a targeting module, suppresses chemoresistance gene expression with a gene regulation module, ensures Salmonella's controllable behavior within the body through a safety module, and facilitates precise drug delivery via a nanoparticle-mediated module. We have further validated the metabolism, dynamics, and efficacy of the BIOTARGET using mathematical models and cell experiments to ensure its safety and efficacy, aiming to provide personalized treatment options for patients and enhance the effectiveness of chemotherapy drugs. [Wiki](https://2024.igem.wiki/jlu-nbbms) | [Official Page](https://teams.igem.org/5304)https://static.igem.org/peertube/streaming-playlists/hls/aa467ee5-ba80-4cd6-9bb0-44e9fe11b549/74d8ac46-5604-4142-b49f-a48d243f6f07-master.m3u8https://video.igem.org/videos/embed/n2wz7VFRCyVP94PL8RGBjr8980522024-10-11T01:24:45.636ZYES2024 PresentationsNOhttps://video.igem.org/w/pMsmSHsBSa42ctDdgmj5fPhttps://video.igem.org/lazy-static/thumbnails/14806a6b-8f08-4cf3-8aa7-ba76eaf8f32b.jpgUMaryland: CerviCare - Urine-Based, Point-of-Care Cervical Precancer Screening (2024) - Team Pres...**Title:** CerviCare - Urine-Based, Point-of-Care Cervical Precancer Screening **Description:** In 2022, lower- and middle-income countries (LMICs) bore 94% of cervical cancer deaths, highlighting global disparity in treating the fourth-most common cancer in women. Screening access is a major contributor to decreased mortality in higher-income countries; however, existing tools rely on equipment and personnel inaccessible in LMICs. We propose CerviCare: an accessible, urine-based point-of-care cervical precancer screening tool that bridges the screening gap by avoiding barriers like cost, refrigeration, patient discomfort, and reliance on specialized equipment. To screen for precancer, we target an emerging biomarker - microRNAs (miRNAs), which are increasingly viewed as viable targets. Through review, we identified three upregulated miRNAs in cervical precancer patient urine. We utilize miRNA-optimized toehold switches, RNA riboregulators that allow downstream protein expression when bound to a target RNA, to detect these miRNAs. By deploying these toeholds alongside a low-cost portable reader, users can screen themselves for cervical precancer in an accessible manner. [Wiki](https://2024.igem.wiki/umaryland) | [Official Page](https://teams.igem.org/5104)https://static.igem.org/peertube/streaming-playlists/hls/c09ae758-b5db-4d74-ad71-4a0bd1dcccdb/18f2aa31-6797-4a99-8cc4-ba483bfa9ec5-master.m3u8https://video.igem.org/videos/embed/pMsmSHsBSa42ctDdgmj5fP8960242024-10-11T01:26:18.156ZYES2024 PresentationsNOhttps://video.igem.org/w/krwn11XaWD4od6pxJtbGojhttps://video.igem.org/lazy-static/thumbnails/fc2c30e6-a9a4-40ae-b6a8-8944a924b0d4.jpgHongKong-JSS: Easy Automated Metal Biosensor (2024) - Team Presentation [English]**Title:** Easy Automated Metal Biosensor **Description:** Utilizing GM E. coli that consist of metal inducible promoter and chromoprotein reporter as biosensors, Metalytic is an automatic system to detect and warn users about heavy metal pollution in various settings. [Wiki](https://2024.igem.wiki/hongkong-jss) | [Official Page](https://teams.igem.org/5152)https://static.igem.org/peertube/streaming-playlists/hls/9d6df0a9-412a-49e8-b64a-33d04466156e/55ece2d5-47b3-4498-ac74-c3f67ab67a65-master.m3u8https://video.igem.org/videos/embed/krwn11XaWD4od6pxJtbGoj84801562024-10-11T01:35:59.439ZYES2024 PresentationsNOhttps://video.igem.org/w/ouuzXQ8peJirirrPXgkRDxhttps://video.igem.org/lazy-static/thumbnails/a3ce9273-2112-4180-bb70-01bf4f739850.jpgASU: OptoPACE (2024) - Team Presentation [English]**Title:** OptoPACE **Description:** Protein engineering is the cornerstone of novel biologics, medicines, and enzymes, with the two most common approaches being directed evolution and de novo design. Despite its importance in the field of synthetic biology, the specialized equipment, complexity of computational tools, and overall high costs limit access for researchers outside of well-funded labs. The 2024 ASU iGEM team aims to remove these barriers to entry by developing optogenetic biological circuits, low-cost bioreactor hardware, and user-friendly computational tools to open the field to new researchers. [Wiki](https://2024.igem.wiki/asu) | [Official Page](https://teams.igem.org/5431)https://static.igem.org/peertube/streaming-playlists/hls/b6237e18-4a01-4216-bf95-64be734ef1ed/10f4eed3-3ae2-46c2-a29c-27b34802e53f-master.m3u8https://video.igem.org/videos/embed/ouuzXQ8peJirirrPXgkRDx8210492024-10-11T01:34:11.870ZYES2024 PresentationsNOhttps://video.igem.org/w/r55dN1KA56BsD1NPkPYsMPhttps://video.igem.org/lazy-static/thumbnails/d63f29f0-17a1-4a96-8c13-3904c38529cf.jpgBAID-China: ScanCer (2024) - Team Presentation [English]**Title:** ScanCer **Description:** Breast cancer is the second leading cause of deaths among cancer in women. Nowadays, personalized medicines are being increasingly adopted for its treatment, yet screening such medicines is incredibly difficult. Team BAID-China is introducing ScanCer, an ATP-FRET probe for high-throughput screening of breast cancer medicines. Through ScanCer, we wish to provide a new method for high-throughput breast cancer medicine screening. This video includes music from InAudio by Infraction. #InAudio The tracks used are Gray and A Way to You. This video includes graphics from Pixabay. [Wiki](https://2024.igem.wiki/baid-china) | [Official Page](https://teams.igem.org/5045)https://static.igem.org/peertube/streaming-playlists/hls/cb060ae7-ea43-4038-ae34-ab2b16751459/da0a7d1d-abfc-46dc-9cc9-832b7656413f-master.m3u8https://video.igem.org/videos/embed/r55dN1KA56BsD1NPkPYsMP8985612024-10-11T01:35:53.751ZYES2024 PresentationsNOhttps://video.igem.org/w/uerX6mWDjBoLxJucpwuxrThttps://video.igem.org/lazy-static/thumbnails/07db8663-5323-439a-b532-f0bc2462c281.jpgWaterloo: BovEco (2024) - Team Presentation [English]**Title:** BovEco **Description:** Join Waterloo iGEM as we present BovEco, our innovative solution to reduce methane emissions from cattle belching. Learn more about how our project aims to make a difference! [Wiki](https://2024.igem.wiki/waterloo) | [Official Page](https://teams.igem.org/5118)https://static.igem.org/peertube/streaming-playlists/hls/e4a08b2d-a127-4d80-bde4-d517a418dd99/d3d47a4d-7fd0-4063-8f82-9a8ef1a2754e-master.m3u8https://video.igem.org/videos/embed/uerX6mWDjBoLxJucpwuxrT8500352024-10-11T01:19:25.859ZYES2024 PresentationsNOhttps://video.igem.org/w/83WLBAT7xxzRgPqmvNNKfHhttps://video.igem.org/lazy-static/thumbnails/72717225-6d0d-4dab-b30c-3e6777c9d546.jpgAFCM-Egypt: SONG-H a modular therapeutic approach for burn injuries (2024) - Team Presentation [E...**Title:** SONG-H a modular therapeutic approach for burn injuries **Description:** Our team has developed a novel therapeutic approach to restore the integrity of acutely damaged tissues. This approach is based on an integration between stem cell regenerative functions and mRNA-based therapeutics to optimize the healing process and regain structural integrity along with better cosmetic outcomes, targeting burn injuries as a proof of concept. This enhancement will be done through conditioned expression of Yes-Associated Protein (YAP-1), which regulates the cells’ proliferation and differentiation. Furthermore, our platform works by introducing genetically engineered Mesenchymal stem cells (MSCs) to the wounded tissue. MSCs will act as a cellular element that would proliferate to fill the wound gap if the wound site is highly destructed and has few viable cells. Additionally, MSCs’ Exosomes would act as vehicles for intracellular delivery of YAP-1. Finally, conditioned transcription activator receptor and protein-specific RNA switch have been integrated into our design to regulate the activity of our therapeutic approach. [Wiki](https://2024.igem.wiki/afcm-egypt) | [Official Page](https://teams.igem.org/5036)https://static.igem.org/peertube/streaming-playlists/hls/391935fc-4be7-42e2-bde0-99de7571e191/bdb3e820-f29e-4617-b01f-eaf6ef0b6cfc-master.m3u8https://video.igem.org/videos/embed/83WLBAT7xxzRgPqmvNNKfH8870832024-10-11T01:23:35.033ZYES2024 PresentationsNOhttps://video.igem.org/w/6cFH8SX4potLGXAb4MHPoehttps://video.igem.org/lazy-static/thumbnails/9c7bb4f5-8cf4-437d-83fb-def4bbdf496d.jpgOUC-China: PullulanElite, a synthetic platform for high-molecular-weight pullula... (2024) - Team...**Title:** PullulanElite, a synthetic platform for high-molecular-weight pullulan production **Description:** Aureobasidium melonogenum P16 is an unconventional yeast. In our experiment, we adapted a method to increase the molecular weight of pullulan produced by Aureobasidium melonogenum P16 and further improve the yield. We look forward to our production method and engineering yeast shining in the future production of pullulan, providing higher quality pullulan for the public and society. In addition, we have developed an engineering yeast screening mechanism based on phosphofructokinase deficiency which greatly maintains screening pressure, reduces contamination of antibiotics and antibiotic resistance genes targeting eukaryotes, and saves costs. Besides, after analysis, this screening mechanism can be applied to different fungal microbial engineering, especially in yeast, and has broad application prospects. It also provides useful ideas for the subsequent iGEM team. [Wiki](https://2024.igem.wiki/ouc-china) | [Official Page](https://teams.igem.org/5331)https://static.igem.org/peertube/streaming-playlists/hls/2a1f58b1-7374-4f63-890f-57e61a6ebe3d/1f80b66d-37ef-4226-9f56-70c9d4567d86-master.m3u8https://video.igem.org/videos/embed/6cFH8SX4potLGXAb4MHPoe9000212024-10-11T01:17:03.766ZYES2024 PresentationsNOhttps://video.igem.org/w/vFRLxWdSqKXA3fw5KSLfxihttps://video.igem.org/lazy-static/thumbnails/991ba148-3a4e-4b9d-ace0-dc1d67525bee.jpgMcMasterU: ChloroNova: Microalgae on a Macroscale (2024) - Team Presentation [English]**Title:** ChloroNova: Microalgae on a Macroscale **Description:** All images generated by team or under Creative Commons License. [Wiki](https://2024.igem.wiki/mcmasteru) | [Official Page](https://teams.igem.org/5515)https://static.igem.org/peertube/streaming-playlists/hls/f069b2e8-75e4-4d8c-997e-32bcdad872ef/3a2ecce2-eeb6-49da-bf75-62d1572713f3-master.m3u8https://video.igem.org/videos/embed/vFRLxWdSqKXA3fw5KSLfxi90001492024-10-11T01:18:20.537ZYES2024 PresentationsNOhttps://video.igem.org/w/gEq7JU2D8ky4nawtiGE54bhttps://video.igem.org/lazy-static/thumbnails/a9f3a3aa-24f0-4c5a-b897-5e02f9271017.jpgHKSSC: Enhancing Our Complement System Against Leptospira(long) (2024) - Team Presentation [English]**Title:** Enhancing Our Complement System Against Leptospira(long) **Description:** This video contains information about the dangers and characteristics of leptospirosis, more importantly on how the world is not able to defeat it efficiently as of 2024. Our video covers our general project, wet lab aims and results, and information on the human practices. [Wiki](https://2024.igem.wiki/hkssc) | [Official Page](https://teams.igem.org/5162)https://static.igem.org/peertube/streaming-playlists/hls/7ed6348e-4a77-461f-b10d-c68a1ccddc18/fa3c5145-93b8-40d4-8196-33affe6b9d06-master.m3u8https://video.igem.org/videos/embed/gEq7JU2D8ky4nawtiGE54b5640282024-10-11T01:08:34.182ZYES2024 PresentationsNOhttps://video.igem.org/w/2vBW8UdYeC3Y38Zhp8FF3thttps://video.igem.org/lazy-static/thumbnails/0fd07ec9-9a3c-4722-aa97-9b30712cd5ac.jpgTongji-Software: Atlas.Y - Advanced Targeting and Localization Assistance System... (2024) - Team...**Title:** Atlas.Y - Advanced Targeting and Localization Assistance System for Yeast **Description:** As we delve into the intricate world of subcellular localization, exploring its critical role in cellular functions, drug discovery, and synthetic biology, Tongji-Software presents Atlas.Y—an advanced software designed to facilitate precise protein targeting and localization within yeast cells. Atlas.Y integrates a comprehensive signal peptide and linker database, coupled with an innovative protein localization design algorithm, ensuring accurate and efficient subcellular localization of proteins. This revolutionary tool empowers researchers by streamlining the entire design process, enabling them to achieve targeted protein localization with unparalleled accuracy. Whether in academic research or biomanufacturing, Atlas.Y enables scientists to realize protein subcellular localization and optimize protein functionality and stability in specialized cellular environments, injecting fresh blood into future research. [Wiki](https://2024.igem.wiki/tongji-software) | [Official Page](https://teams.igem.org/5503)https://static.igem.org/peertube/streaming-playlists/hls/0c3bda4c-1ff9-4041-8ebf-49fe48fbef73/5ebf7b0a-fd4b-4752-bbed-1005e9bde6ee-master.m3u8https://video.igem.org/videos/embed/2vBW8UdYeC3Y38Zhp8FF3t8970182024-10-10T23:51:51.282ZYES2024 PresentationsNOhttps://video.igem.org/w/tqnbLkF8vjwUaKkvwcYChAhttps://video.igem.org/lazy-static/thumbnails/406d29c9-8de1-4bfd-a758-ea89d9eb02fa.jpgThailand-RIS: Mirifica Magnifica: Pathway to Puerarin! (2024) - Team Presentation [English]**Title:** Mirifica Magnifica: Pathway to Puerarin! **Description:** The Thailand-RIS team aims to make neurodegenerative disease treatments more accessible by developing a sustainable method for producing puerarin, genistein, and daidzein, all isoflavonoids with neuroprotective properties. Currently, the production of these isoflavonoids is costly, labor-intensive, and time-consuming. The production of these supplements would be made more efficient by transferring the key enzymes in the isoflavonoid pathway responsible for producing these compounds from its native plant, Pueraria lobata v. mirifica, to a more sustainable and less resource-intensive plant, Nicotiana benthamiana, through transient modification using Agrobacterium tumefaciens. The enzymes transferred include chalcone synthase (PmCHS), chalcone reductase (PmCHR), chalcone isomerase (PmCHI), isoflavone synthase (PmIFS), 2-hydroxyisoflavanone (PmHID), and C-glycosyltransferase (PmC-UGT). The team successfully modified N. Benthamiana and established proof of concept by finding traces of all 3 of the targeted compounds, with genistein being the most prominently detected and puerarin being minimally detected. [Wiki](https://2024.igem.wiki/thailand-ris) | [Official Page](https://teams.igem.org/5120)https://static.igem.org/peertube/streaming-playlists/hls/de0da67f-b3c7-4529-b936-064b932f1fc2/84e71f17-f23d-4a84-a2f3-d9a08cf4e1c6-master.m3u8https://video.igem.org/videos/embed/tqnbLkF8vjwUaKkvwcYChA9000272024-10-10T23:55:54.853ZYES2024 PresentationsNOhttps://video.igem.org/w/6thxhPNjRFXj6vZ4oDxNZzhttps://video.igem.org/lazy-static/thumbnails/6682cdef-f957-42dd-89bc-43ad15f04353.jpgNTHU-Taiwan: Pandage - An Intelligent Approach to infection disease control on s... (2024) - Team...**Title:** Pandage - An Intelligent Approach to infection disease control on skin wound healing with probiotics **Description:** Our project title is “Pandage – A Customized Approach to infection disease control on skin wound healing with probiotics” Since it integrates monitoring, drug delivery, and wound healing promotion. This wearable device will provide real-time monitoring and treatment for patients. Additionally, it will feature a controlled drug delivery system to administer therapeutic agents precisely when needed, thereby optimizing the healing process. Based on data-driven control systems, Pandage offers an approach optimizing drug delivery for different wound states or users condition as we attempt to provide customized care. By leveraging bioelectronics and biocompatible materials, Pandage may offer a comprehensive solution for the effective management of skin wounds infected disease. [Wiki](https://2024.igem.wiki/nthu-taiwan) | [Official Page](https://teams.igem.org/5361)https://static.igem.org/peertube/streaming-playlists/hls/2c4cf7c8-e415-4650-a211-5a9dafae0bab/b3d36131-038a-44ba-8dcd-ae0de5443f84-master.m3u8https://video.igem.org/videos/embed/6thxhPNjRFXj6vZ4oDxNZz8060262024-10-10T23:54:04.610ZYES2024 PresentationsNOhttps://video.igem.org/w/7VwDcZv9Unapgp9LiPAiFrhttps://video.igem.org/lazy-static/thumbnails/b54473a7-6237-466e-bb84-0382111011b3.jpgNKU-China: iEraser—Erase the Pain of Inflammatory Bowel Disease (IBD) (2024) - Team Presentation ...**Title:** iEraser—Erase the Pain of Inflammatory Bowel Disease (IBD) **Description:** Inflammatory Bowel Disease (IBD) is a chronic intestinal disease, known for its complex pathogenesis. Currently, it remains incurable and has a high prevalence worldwide, affecting an estimated 8 million individuals.We are an iGEM team from China, and we are committed to synthesizing E. coli with gene expression vectors, recombinant with selected inflammatory priming factors, adhesion factors, and anti-inflammatory factors for the treatment of IBD. Hope we can use the knowledge of synthetic biology to find a way out for IBD patients. [Wiki](https://2024.igem.wiki/nku-china) | [Official Page](https://teams.igem.org/5332)https://static.igem.org/peertube/streaming-playlists/hls/381022a0-9169-4e84-80dd-b8dfc7d66f33/c54888e5-b428-47ed-b275-567788b15616-master.m3u8https://video.igem.org/videos/embed/7VwDcZv9Unapgp9LiPAiFr8980192024-10-11T00:04:06.837ZYES2024 PresentationsNOhttps://video.igem.org/w/7crjBqpmx9LY4KKdtHqb8Yhttps://video.igem.org/lazy-static/thumbnails/ef425723-f020-4020-a874-b8ead7de3840.jpgShanghai-BioX: Heart Bodyguard: Yeast heterologous synthesis of active ingredien... (2024) - Team...**Title:** Heart Bodyguard: Yeast heterologous synthesis of active ingredients of Salvia **Description:** The incidence of myocarditis has increased after COVID-19, posing a threat to public health. Traditional Chinese medicine, Salvia miltiorrhiza (Danshen), its active compounds, such as tanshinone, and a similar structure diterpenoid carnosic acid, which is also extracted from Salvia, have proven effective in treating cardiovascular diseases, including anti-inflammatory and cardioprotective benefits. However, traditional production methods are limited by high cost and time-consuming. To address this issue, we use Saccharomyces cerevisiae, leveraging its inherent MVA pathway to construct a novel synthetic pathway for the efficient production of tanshinone and carnosic acid. This sustainable, scalable method may revolutionize cardiovascular drug production, expanding applications in drug development and combating cardiovascular and cerebrovascular diseases. [Wiki](https://2024.igem.wiki/shanghai-biox) | [Official Page](https://teams.igem.org/5207)https://static.igem.org/peertube/streaming-playlists/hls/322f9e33-7bef-413d-9a12-575726095fe6/8d7e0225-0e9e-4c80-926f-4f94120be8e4-master.m3u8https://video.igem.org/videos/embed/7crjBqpmx9LY4KKdtHqb8Y6600102024-10-11T00:06:23.555ZYES2024 PresentationsNOhttps://video.igem.org/w/gyirBENAzXEd56EEycE1kkhttps://video.igem.org/lazy-static/thumbnails/c2f1e026-906b-4d4b-b4b0-83cc2b3cce01.jpgMacquarieUni: Making vanillin from tyrosine... Meet the aroma alchemists! (2024) - Team Presentat...**Title:** Making vanillin from tyrosine... Meet the aroma alchemists! **Description:** Meet the aroma alchemists! Here is our presentation video describing our project's background, aim, methods, and results. We also discuss the safety measures taken during the experiments and our activities for human practices. [Wiki](https://2024.igem.wiki/macquarieuni) | [Official Page](https://teams.igem.org/5443)https://static.igem.org/peertube/streaming-playlists/hls/7dfba11b-d51e-4b94-b8f6-a785e33e8381/b1ee3342-e096-41f3-a863-6d7c9bf005e6-master.m3u8https://video.igem.org/videos/embed/gyirBENAzXEd56EEycE1kk7690302024-10-10T23:42:44.529ZYES2024 PresentationsNOhttps://video.igem.org/w/oWeeo147jeDH4Y43JAivg8https://video.igem.org/lazy-static/thumbnails/b1c2760a-bd8f-446e-8f47-dd0f5c42d2ba.jpgHUST-China: PETilizer -- A Metabolic Coupling System for Concurrent Microplastic... (2024) - Team...**Title:** PETilizer -- A Metabolic Coupling System for Concurrent Microplastic Degradation and Fertilizer Synthesis **Description:** As plastic use escalates, agriculture faces increasing threats from microplastics, which originate from films, irrigation, wastewater, and compost. These particles compromise soil structure and quality, leading to reduced crop yields and altering crucial properties such as bulk density and water retention. More severely, crops may absorb these microplastics, impairing their ability to take up nutrients and water effectively. To combat these alarming issues, we introduce PETlizer—a groundbreaking solution featuring engineered E. coli BL21 to break down microplastics and Pseudomonas putida KT2440 to convert the byproducts into rhamnolipids. Rhamnolipids are powerful surfactants that enhance microbial adhesion, improve soil water retention, inhibit pathogens, and assist in pollution remediation. We hope this innovative approach will not only address plastic contamination but also boost agricultural productivity [Wiki](https://2024.igem.wiki/hust-china) | [Official Page](https://teams.igem.org/5175)https://static.igem.org/peertube/streaming-playlists/hls/b9bb5e27-ccd0-4c64-be16-d328c818f389/342aad63-b4ab-4d45-bb61-241aded2061a-master.m3u8https://video.igem.org/videos/embed/oWeeo147jeDH4Y43JAivg89000442024-10-11T00:43:27.132ZYES2024 PresentationsNOhttps://video.igem.org/w/2a8ZAhMoBS1psJw1ZVa349https://video.igem.org/lazy-static/thumbnails/6b067ff2-c374-41d7-b105-e6047d80c5b6.jpgSHSBNU-China: STAR: Synthesis of Theanine for Anxiety Relief (2024) - Team Presentation [English]**Title:** STAR: Synthesis of Theanine for Anxiety Relief **Description:** Project STAR is targeted at anxiety among high school students and the global population by harnessing L-theanine, a naturally occurring amino acid in tea leaves. To overcome the limitations in traditional synthesis methods, we developed a de novo synthetic biology approach to produce L-theanine in E. coli BL21. We've designed a pathway involving five enzymes to synthesize L-theanine starting from glucose with an ATP regeneration system for efficiency. We investigated the implementation of the product as candies, and explored delivery methods. We expanded the scope of our care via community events of promoting anxiety awareness. [Wiki](https://2024.igem.wiki/shsbnu-china) | [Official Page](https://teams.igem.org/5235)https://static.igem.org/peertube/streaming-playlists/hls/095fc227-e8aa-4ca0-9a87-fb9ddc6c3056/d295558e-544a-4f28-9a44-81525eeb60d1-master.m3u8https://video.igem.org/videos/embed/2a8ZAhMoBS1psJw1ZVa3498180262024-10-10T23:46:47.751ZYES2024 PresentationsNOhttps://video.igem.org/w/fmoQg9tE9Fh9Fekq4VC7o8https://video.igem.org/lazy-static/thumbnails/b35929f8-1f71-4a4c-9913-b73575d9a91f.jpgGEC-Guangzhou: Smart Probiotic for Early IBD Detection and Treatment (2024) - Team Presentation [...**Title:** Smart Probiotic for Early IBD Detection and Treatment **Description:** Inflammatory Bowel Disease (IBD) causes intestinal damage and inflammation, leading to symptoms like abdominal pain and recurring episodes. Current diagnostic and treatment methods are insufficient. Colonoscopies, the main diagnostic tool, are invasive and costly, while medications can suppress symptoms but have side effects. Our project aims to create a smart engineered probiotic for early IBD prediction and treatment. This probiotic detects elevated thiosulfate levels in the gut, triggering a sensory system that turns the patient's stool blue to indicate IBD. For treatment, the bacteria release Epidermal Growth Factor (EGF) to heal the intestinal lining. A safety kill-switch system ensures no environmental release or persistence in the human body. This integrated diagnostic and therapeutic approach offers a more convenient, affordable, and precise solution for early IBD detection and treatment, potentially reducing its incidence. [Wiki](https://2024.igem.wiki/gec-guangzhou) | [Official Page](https://teams.igem.org/5084)https://static.igem.org/peertube/streaming-playlists/hls/7438e32d-9733-4319-85a0-d50106d5072b/303564ea-c7bd-4963-a79f-1bd086dc8d50-master.m3u8https://video.igem.org/videos/embed/fmoQg9tE9Fh9Fekq4VC7o88830372024-10-10T23:27:08.956ZYES2024 PresentationsNOhttps://video.igem.org/w/2xGuFtn3Jg3QvFdnTTyDfwhttps://video.igem.org/lazy-static/thumbnails/31b7d9a2-4cea-46ad-84d6-d82aba49d728.jpgStanford: Dux. Racing for a Stronger World (2024) - Team Presentation [English]**Title:** Dux. Racing for a Stronger World **Description:** This video introduces "Dux," a groundbreaking potential therapy for facioscapulohumeral muscular dystrophy (FSHD), a rare neuromuscular disorder affecting muscle strength and function. Through personal stories and scientific insights, the video further delves into the interdisciplinary impact of FSHD, the role of the DUX4 gene in causing muscle cell death, and how Dux aims to combat this by introducing a modified protein, DUX4-DBD, to block the harmful effects of DUX4. We also explain our diversified dry lab efforts, as well as our flagship initiatives in outreach and human practices. [Wiki](https://2024.igem.wiki/stanford) | [Official Page](https://teams.igem.org/5195)https://static.igem.org/peertube/streaming-playlists/hls/0c8626b1-9a26-4cd9-89f7-f533f7da11ce/4fc47f8b-588e-481a-b6e7-75766a04ae2e-master.m3u8https://video.igem.org/videos/embed/2xGuFtn3Jg3QvFdnTTyDfw90101052024-10-10T23:32:17.080ZYES2024 PresentationsNOhttps://video.igem.org/w/j21og6wWCjf1EBQsAZ1eY7https://video.igem.org/lazy-static/thumbnails/478699c6-8199-48bb-a785-714cb92aea86.jpgHKPOLYU: Dual-Targeting Gemcitabine-Resistant Pancreatic Cancer with Novel Engin... (2024) - Team...**Title:** Dual-Targeting Gemcitabine-Resistant Pancreatic Cancer with Novel Engineered Nanobody-PANOPOLY **Description:** Hello everyone, we are PANOPOLY, a team from The Hong Kong Polytechnic University. We aim to revolutionize the treatment of pancreatic cancer, a disease that has long evaded effective therapies. Pancreatic cancer has one of the lowest survival rates of all cancers, and the current treatments have several challenges, such as drug resistance, ineffective therapies, and low efficacy. Therefore, to address these treatment challenges, we design a bispecific antibody that targets two receptors, EGFR and HER2, simultaneously. Also, to educate the public about pancreatic cancer, we conducted several IHP activities. Specifically, PANOPOLY, a board game designed by our teammates, emphasizes the equal chance of all players in developing cancers and offers information on medications that are effective in treating specific types of cancers. We believe the board game has served as an interactive education tool to the local community and has raised their awareness of cancer care and support. We hope you enjoy this presentation video and support our project! [Wiki](https://2024.igem.wiki/hkpolyu) | [Official Page](https://teams.igem.org/5271)https://static.igem.org/peertube/streaming-playlists/hls/91e879e6-8231-4792-8e22-7c6c30e7a8da/8b8f5c47-e398-4889-b9e8-16f1f44ce2ad-master.m3u8https://video.igem.org/videos/embed/j21og6wWCjf1EBQsAZ1eY789801602024-10-10T23:35:26.162ZYES2024 PresentationsNOhttps://video.igem.org/w/ix6Ain6aMpmEmzNjJsgnQVhttps://video.igem.org/lazy-static/thumbnails/810d4ef9-8ac0-4ae4-9108-fa8423ca2bfc.jpgTAU-Israel: PROtech- Precise RNA Oncotherapy (2024) - Team Presentation [English]**Title:** PROtech- Precise RNA Oncotherapy **Description:** Cancer remains a leading cause of death globally, it imposes significant financial burdens on patients and healthcare systems. Despite advances in treatments, cancer remain a challenge. Inspired by previous research and iGEM projects, our team developed "PROtech," a precise RNA-based oncotherapy using Toehold Switches to specifically target cancerous mRNA profiles, potentially offering a safer and more effective treatment. [Wiki](https://2024.igem.wiki/tau-israel) | [Official Page](https://teams.igem.org/5065)https://static.igem.org/peertube/streaming-playlists/hls/8e02dc21-f3dd-400e-87f2-7428afc08bc1/bc6ce42d-abc5-484c-9e3c-cb1f4e7d1ded-master.m3u8https://video.igem.org/videos/embed/ix6Ain6aMpmEmzNjJsgnQV8995362024-10-10T22:24:51.430ZYES2024 PresentationsNOhttps://video.igem.org/w/jsLzx1bJYsDeyVQadcmRaMhttps://video.igem.org/lazy-static/thumbnails/1b3375aa-b2dd-4670-80a1-a97824046701.jpgIIT-Madras: cosmobiome - a CO-culture with Silicon MObilization for BIOmanufactu... (2024) - Team...**Title:** cosmobiome - a CO-culture with Silicon MObilization for BIOmanufacturing using Martian rEgolith **Description:** One of the grand challenges in space synthetic biology is in situ resource utilization (ISRU). This eliminates the need to transport materials from Earth, which can be expensive and cumbersome. Another challenge is the manufacture of valuable compounds, like platform chemicals and pharmaceuticals, in space. We present a novel co-culture system of silicon-solubilizing bacteria (Pseudomonas fluorescens) and diatoms (Phaeodactylum tricornutum) that can use the silica present in Martian soil to drive their growth and produce compounds of human interest. As a proof-of-concept, we have engineered our bacterium to produce 4(S)-limonene. We also present Astrolabe, a first-of-its-kind software for applications in space synthetic biology and biomanufacturing. [Wiki](https://2024.igem.wiki/iit-madras) | [Official Page](https://teams.igem.org/5155)https://static.igem.org/peertube/streaming-playlists/hls/95814e61-d643-49fb-9907-d4d07b6225ab/0d7f7eed-ca8e-4877-9272-77eb5d1049cd-master.m3u8https://video.igem.org/videos/embed/jsLzx1bJYsDeyVQadcmRaM8430492024-10-10T22:30:43.271ZYES2024 PresentationsNOhttps://video.igem.org/w/vRYFGkhRfLM8QKJc5wPP4khttps://video.igem.org/lazy-static/thumbnails/c1c4e699-0d59-4587-897c-e5455d3e8e06.jpgUCAS-China: Lantern: Programable Logic Framework Based on Recombinase and CRISPR... (2024) - Team...**Title:** Lantern: Programable Logic Framework Based on Recombinase and CRISPR interference **Description:** In synthetic biology, traditional gene circuits are similar to non-programmable components in circuits, of which logical functions cannot be changed after being built. A programmable logic device (PLD) has emerged in the development of digital circuits. The difference between PLD and general digital chips is that the internal circuits of general digital chips have been determined and cannot be changed again. In contrast, the digital circuits inside PLD can be planned and determined after leaving the factory. In biology, recombinase can be used as a good recombination framework, and CRISPR interference, as an excellent NOT gate, has been widely used in gene circuit design. We plan to use recombinase and CRISPRi to build programmable logic pathways in organisms and systematically reprogram cellular behaviour. [Wiki](https://2024.igem.wiki/ucas-china) | [Official Page](https://teams.igem.org/5276)https://static.igem.org/peertube/streaming-playlists/hls/f1d3661c-a1b7-40a7-8eba-1663a1dd42d5/6f28bd71-c70f-4cf4-bc56-afdc543c1282-master.m3u8https://video.igem.org/videos/embed/vRYFGkhRfLM8QKJc5wPP4k8925272024-10-10T22:32:43.236ZYES2024 PresentationsNOhttps://video.igem.org/w/qMbHrYXFqfbqKqQUcBZ86Khttps://video.igem.org/lazy-static/thumbnails/3d75299d-1715-4b8f-99cf-27bdc52861d2.jpgGuelph: Ash Guard: A novel biopesticide for combating the Emerald Ash Borer (EAB) (2024) - Team P...**Title:** Ash Guard: A novel biopesticide for combating the Emerald Ash Borer (EAB) **Description:** Ash Guard is a bioinsecticide aimed to combat the highly invasive and destructive Emerald Ash Borer (EAB) using Escherichia coli (E. coli) and Saccharomyces cerevisiae (S. cerevisiae) engineered to produce Cry8Da, a cytotoxin. Explore our construct and design of this biopesticide, our Human Practices validation, accessible Hardware, and education work. [Wiki](https://2024.igem.wiki/guelph) | [Official Page](https://teams.igem.org/5103)https://static.igem.org/peertube/streaming-playlists/hls/c8aa668e-4f98-4310-aa7f-f71420146a41/5560894d-e819-4f91-9ddf-a539a2a38f4d-master.m3u8https://video.igem.org/videos/embed/qMbHrYXFqfbqKqQUcBZ86K8970212024-10-10T22:39:37.363ZYES2024 PresentationsNOhttps://video.igem.org/w/pBPRecQpJMJFQ8kDwF5smwhttps://video.igem.org/lazy-static/thumbnails/e136e7ce-e456-45b2-8d04-d93b770e63d5.jpgBNUZH-China: Mangroves PE&CO2 Hunters (2024) - Team Presentation [English]**Title:** Mangroves PE&CO2 Hunters **Description:** The global problem of microplastic pollution has become a significant challenge for marine and coastal ecosystems, with research shows that mangroves not only effectively block plastic debris but also gradually accumulate it in their soil and sediments. Therefore, the microplastic content in mangrove soils is significantly higher than in other coastlines or marine sediments. To address these issues, we introduce “Mangroves PE&CO2 Hunters”, a project that has engineered two distinct bacterial species to tackle this environmental challenge. The first, P. aeruginosa, has been genetically modified to more effectively break down PE microplastics. Furthermore, we have engineered R. palustris to sequester CO2 produced during the plastic degradation process. Mathematical modeling, machine learning, biokinetic simulations, neural networks, LLM, and RAG are used to explore the project. Besides, we designed iHP tRi-Cycle to better understanding real-world needs thus refine our project. [Wiki](https://2024.igem.wiki/bnuzh-china) | [Official Page](https://teams.igem.org/5291)https://static.igem.org/peertube/streaming-playlists/hls/bf42b57f-24d9-427c-a744-8aa29916bade/0a6eb930-3b92-45db-b6bb-3a52d7d2d5d3-master.m3u8https://video.igem.org/videos/embed/pBPRecQpJMJFQ8kDwF5smw89904362024-10-10T22:57:01.493ZYES2024 PresentationsNOhttps://video.igem.org/w/wZbHN1diAjnMTm8RXZZyaVhttps://video.igem.org/lazy-static/thumbnails/94c0db82-e6f6-409f-a4fa-1b30fe5c57f8.jpgPeking: GPA: General disease detection with Aptamer and Protease (2024) - Team Presentation [Engl...**Title:** GPA: General disease detection with Aptamer and Protease **Description:** It is well known that the primary prevention of disease by diagnostic tools is extremely important. However, the existing diagnostic tools are costly, time-consuming, require specialized technicians, and often needs different diagnostic approaches for different diseases, namely, case-by-case detection. Here, we’ve designed a diagnosis system that is faster, cheaper, easier to operate, and most importantly, more modular and broad-spectrum. Our system is called “General disease Prediction model with Aptamer”——GPA. We hope to achieve methodological innovation in the field of disease diagnosis. The overall design of our system can be divided into three parts: biomarker recognition. signal amplification. And signal output We have two single strand nucleotides(called aptamers), each connected to a protein segment(called split protease). A specific biomarker would be recognized by two aptamers, bringing them closer together and causing the connected proteins to dimerize into an active protease. By cleavage, This protease activates another downstream protease. The two activation events create a cascading amplification effect. Finally, the signal output will be presented by a colloidal gold reagent kit. Overall, this system can detect various kinds of diseases by only changing the aptamer module, which enables the generalization and modularization of our system. This is further supported by an AI tool developed by our team. [Wiki](https://2024.igem.wiki/peking) | [Official Page](https://teams.igem.org/5321)https://static.igem.org/peertube/streaming-playlists/hls/faee2956-8b36-4c85-b664-52a155e60157/dc011cd4-4f97-4abe-8c7f-b2b6a4cd4d5e-master.m3u8https://video.igem.org/videos/embed/wZbHN1diAjnMTm8RXZZyaV8905692024-10-10T23:20:58.087ZYES2024 PresentationsNOhttps://video.igem.org/w/nGrpCnJ15VadU5WnZLnJNihttps://video.igem.org/lazy-static/thumbnails/56e4e594-6cc1-47ca-9dcb-c949e7e68f14.jpgGEMS-Taiwan: Dengue Beeters - A novel synergy of recombinant biolarvicidal toxin... (2024) - Team...**Title:** Dengue Beeters - A novel synergy of recombinant biolarvicidal toxins, naturally-derived geosmin, and gravid-trap **Description:** The rise of dengue fever in recent years has become a significant issue in tropical and sub-tropical areas, inflicting serious socioeconomic and healthcare burdens. In our project, we successfully engineered 12 recombinant biolarvicidal toxins and partially reproduced a chromosome-free system. We conducted WHO standard larvicidal assay with Aedes albopictus larvae and proved the potency of Cyt2Ba, Xpp81Aa1 and BmK IT1. In addition, we consistently proved that 2.5 mg/ml of beetroot peel powder can significantly attract gravid female Ae. albopictus mosquitoes in oviposition assays. We integrated the synthetic biology-based product with beetroot peel powder and developed Taiwan's first 3D-printed household-use sticky ovitrap. We also developed an OpenCv mosquito egg analyzer to automatically analyze mosquito eggs, helping field entomologists and scientists in dengue surveillance work. Dengue Beeters is an exciting project that breaks mosquito life cycle through synthetic biology and contributes to the end of dengue fever disease by 2030. [Wiki](https://2024.igem.wiki/gems-taiwan) | [Official Page](https://teams.igem.org/5066)https://static.igem.org/peertube/streaming-playlists/hls/afb5520c-95ed-472c-904b-536d02ccb54d/ee44b817-a83a-4a95-a3c8-fa837681da89-master.m3u8https://video.igem.org/videos/embed/nGrpCnJ15VadU5WnZLnJNi88308892024-10-10T23:37:39.284ZYES2024 PresentationsNOhttps://video.igem.org/w/6db9Y1nBNBftB2NN1BGuSvhttps://video.igem.org/lazy-static/thumbnails/2321015a-f476-4383-b12a-dff2a68231c6.jpgConcordia-Montreal: MycoMiners Remediation (2024) - Team Presentation [English]**Title:** MycoMiners Remediation **Description:** MycoMiners Remediation - A country built largely on resource extraction, mining continues to shape Canada's landscape and its people. Unfortunately, these impacts are not unilaterally positive. Mine effluent, water originating from mine sites and discharged - intentionally or accidentally - into the environment, negatively impacts ecosystems and the communities existing along contaminated waterways. The second most important issue facing the environment, both at home and abroad, treating mine effluent is imperative. While implementation of water treatment technologies is mandated in Canada, conventional systems are often expensive and ineffective in achieving the small concentrations required by regulations. Recently, biological treatment programs have been successfully implemented at scale to treat a wide range of contaminants. As mining is one of the industries that has only recently begun to explore biological solutions to its longstanding problems, we saw a change to use synbio to positively contribute to the industry. This year, we take inspiration from these pioneering programs to create a designer organism that is highly efficient at removing two contaminants of concern from mine effluent. We have chosen to target Nickel and Copper using surface binding proteins on K. Marxianus, an acid and heat resistant strain of yeast. To facilitate the growth and application of this yeast we have undertaken the design and prototyping of a bioreactor. [Wiki](https://2024.igem.wiki/concordia-montreal) | [Official Page](https://teams.igem.org/5139)https://static.igem.org/peertube/streaming-playlists/hls/2a30e063-c077-471c-8e60-8a458334b851/415fded5-f746-4c6e-90c5-9f0d397864c2-master.m3u8https://video.igem.org/videos/embed/6db9Y1nBNBftB2NN1BGuSv8620272024-10-10T23:47:41.737ZYES2024 PresentationsNOhttps://video.igem.org/w/us3HTzmbVhg7GNoeVaxUvfhttps://video.igem.org/lazy-static/thumbnails/4b7cb3d4-ab50-4449-a1cd-fbca3a2c98c2.jpgAthens: e-PHAESTUS (2024) - Team Presentation [English]**Title:** e-PHAESTUS **Description:** The use of electronic and electrical equipment (EEE) is steadily expanding, resulting in an e-waste management dilemma. Every year, enormous quantities of electronics containing valuable and hazardous materials are incorrectly disposed of. In 2019, an estimated 53.6 million tonnes of e-waste were generated worldwide, with only 17.4% correctly recycled. According to official data from the European Commission, this issue is particularly serious in our country, Greece. Almost all e-waste is burnt or discarded in landfills, spewing dangerous compounds to both the environment and humans. Furthermore, the precious metals present in e-waste, such as gold, silver, and copper, are not retrieved or utilized, causing a negative impact on the national economy. In response to this complex challenge, the iGEM Athens 2024 team presents e-PHAESTUS, a biomanufacturing/bioremediation project that involves the bioleaching of e-waste. The project is greatly influenced by the god Hephaestus and our region's mining heritage. Our team focuses specifically on the tripeptide Glutathione. Glutathione (GSH) is a tripeptide that contains -SH and -COOH groups, binds to and solubilizes metals. Using synthetic biology, our team hopes to genetically modify the bacteria E.coli and significantly increase GSH production. [Wiki](https://2024.igem.wiki/athens) | [Official Page](https://teams.igem.org/5406)https://static.igem.org/peertube/streaming-playlists/hls/e662e5eb-ff9c-4fff-8761-443cc91592b8/cb386b45-39a8-4b0c-9756-f8e21aba95f1-master.m3u8https://video.igem.org/videos/embed/us3HTzmbVhg7GNoeVaxUvf8990702024-10-11T01:25:37.049ZYES2024 PresentationsNOhttps://video.igem.org/w/5gJaDCoqMkKJ7kbUC2Rz88https://video.igem.org/lazy-static/thumbnails/ef79db78-c802-4d25-92f5-c941ec3e8288.jpgNJU-China: Prometheus: Large Language Model for Synthetic Biology (2024) - Team Presentation [Eng...**Title:** Prometheus: Large Language Model for Synthetic Biology **Description:** Over the past fifty years, synthetic biology has achieved significant advancements, with last year marking the 20th anniversary of iGEM. Despite these accomplishments, the complexity of components and disorganized knowledge structures have hindered its full potential. As we enter iGEM’s new decade, NJU-China's 2024 goal is to unlock synthetic biology’s potential using new tools. We utilized a knowledge graph as the foundational database architecture and leveraged a large language model to facilitate processes such as raw data cleaning, database retrieval, and natural language dialogue with users. We developed Prometheus, a professional-grade, novice-friendly synthetic biology language model. Prometheus helps users retrieve components, construct plasmids, and guide experimental design, thus promoting synthetic biology. After completing the development of Prometheus, we successfully promoted the model among a wide audience through extensive Human Practice activities, unleashing the fire of synthetic biology. [Wiki](https://2024.igem.wiki/nju-china) | [Official Page](https://teams.igem.org/5367)https://static.igem.org/peertube/streaming-playlists/hls/2296b277-30a0-45c7-80a6-4c67db69f979/d834c2c3-5ee3-45a4-badb-95dea951abb4-master.m3u8https://video.igem.org/videos/embed/5gJaDCoqMkKJ7kbUC2Rz8888001062024-10-11T01:42:18.295ZYES2024 PresentationsNOhttps://video.igem.org/w/h8r23VznwHY3ZPdtCWuFmdhttps://video.igem.org/lazy-static/thumbnails/1f00978f-103a-4a65-89bb-be45e235f848.jpgJLU-CP: PalettEmo (2024) - Team Presentation [English]**Title:** PalettEmo **Description:** Fashion, as a universal language, reflects personal taste and mirrors the trends of social culture. Emotional expression is key to understanding the inner world and strengthen self-identity. However, the fashion industry often promotes a perfect image, limiting the expression of true emotions, which may lead to deeper self-doubt. Based on these, JLU-CP launched a fashion item called PalettEmo, which is composed of "Palette" and "Emotion", aiming to break this deadlock. We hope to re-examine the relationship between fashion and emotional expression, and to encourage people to express themselves. [Wiki](https://2024.igem.wiki/jlu-cp) | [Official Page](https://teams.igem.org/5354)https://static.igem.org/peertube/streaming-playlists/hls/829bd7c8-d573-4ced-a151-b216c1c74510/4b1bfe90-72bc-4dc8-b1fa-6d2815a8cb42-master.m3u8https://video.igem.org/videos/embed/h8r23VznwHY3ZPdtCWuFmd8420612024-10-11T02:17:35.487ZYES2024 PresentationsNOhttps://video.igem.org/w/uQCwNRbJebVAPGEvXWk9chhttps://video.igem.org/lazy-static/thumbnails/3fe30b0d-b7d8-479d-99c3-b1fb193784f9.jpgUM-Macau: CaVenger X (2024) - Team Presentation [English]**Title:** CaVenger X **Description:** UM_Macau utilized synthetic biology to construct a controlled calcium overload system for killing cancer cells. We selected the MscS and hTPRC1 ion channels, which are sensitive to ultrasound, as the target proteins and introduced their gene sequences into different plasmids to express these ion channel proteins on the chassis cell HEK293. After successfully expressing the channel proteins, we used the lamp2b protein to package the them, also synthesized using synthetic biology, into vesicles (EVs) using exocytosis. We then allowed the vesicles to fuse with the target cell. Finally, we induced the calcium ion channels on the cancer cell membrane and the endoplasmic reticulum calcium release channel (RyR) in the cancer cells to open under the combined action of ultrasound and hNOS2, significantly increasing the intracellular calcium influx and releasing the calcium the endoplasmic reticulum. This triggered calcium overload in cancer cells, leading to cell death and achieving an anti-cancer effect. [Wiki](https://2024.igem.wiki/um-macau) | [Official Page](https://teams.igem.org/5353)https://static.igem.org/peertube/streaming-playlists/hls/e98a18b8-ebba-4060-bbed-e6dbfe1485a6/cf8f8a4f-bb76-43e2-a3a0-19bf77d6777f-master.m3u8https://video.igem.org/videos/embed/uQCwNRbJebVAPGEvXWk9ch8810392024-10-11T02:17:38.547ZYES2024 PresentationsNOhttps://video.igem.org/w/gMx852imYNjKCaS8jgLpwnhttps://video.igem.org/lazy-static/thumbnails/1f399902-0f8d-47a6-af2e-d38f4c2d3031.jpgNUDT-CHINA: K-night: a designer cell-based drug screening platform for MTNR1A ag... (2024) - Team...**Title:** K-night: a designer cell-based drug screening platform for MTNR1A agonist discovery **Description:** In light of an increasingly aging population, numerous of individuals are experiencing insomnia symptoms precipitated by endocrine imbalances. Intensifying pressures and escalating workloads are also disrupting adults’ natural sleep patterns. Insomnia caused by circadian rhythm disorders have emerged as a significant health conundrum. Melatonin is widely recognized as the first-line treatment for insomnia, but excessive consumption can lead to adverse effects like headache and dizziness. Notably, MTNR1A receptors paly a more directly role in regulating circadian rhythms, whereas MTNR1B participate in various physiological activities. A drug specifically targeting the MTNR1A is needed to treat insomnia caused by circadian rhythm disorders. Inspired by synthetic biology principles, an innovative small molecule drug screening platform has been developed. This platform introduces a novel exogenous melatonin signaling pathway, enabling the screening potential MTNR1A agonists and natural essential oils that activate melatonin receptors. Our project provides a robust foundation for developing therapeutic agents targeting insomnia. [Wiki](https://2024.igem.wiki/nudt-china) | [Official Page](https://teams.igem.org/5267)https://static.igem.org/peertube/streaming-playlists/hls/7fd4baa5-d955-4fd0-b3fa-2607c95b02ed/ba719a52-a722-40f6-b646-ad74913967ea-master.m3u8https://video.igem.org/videos/embed/gMx852imYNjKCaS8jgLpwn7150942024-10-11T02:23:18.759ZYES2024 PresentationsNOhttps://video.igem.org/w/krVtgbqGYCDpNjsAjS2VwEhttps://video.igem.org/lazy-static/thumbnails/cf9d1ed8-21ce-4b31-9606-376135989311.jpgHS-Alpha: Sanalgesic (2024) - Team Presentation [English]**Title:** Sanalgesic **Description:** There are over 300 million cases of General Anxiety Disorder (GAD) worldwide, causing stress and physical symptoms like pain and insomnia. Aromatherapy, particularly with Sandalwood album oil (SAO), can help relieve these issues. However, SAO is scarce and expensive due to low yields and the endangered status of its source plant. We aim to address this by engineering E. Coli and C.Serevisiae to produce SAO’s key chemicals, creating a sustainable and accessible alternative to traditional methods that take 25-30 years. This project could make SAO’s therapeutic benefits more widely available. [Wiki](https://2024.igem.wiki/hs-alpha) | [Official Page](https://teams.igem.org/5281)https://static.igem.org/peertube/streaming-playlists/hls/9d7c2e4d-423a-44d4-902b-40fa07f4b36e/849f8abf-8566-4564-9cb9-cf2af33319d4-master.m3u8https://video.igem.org/videos/embed/krVtgbqGYCDpNjsAjS2VwE8000152024-10-11T02:39:25.455ZYES2024 PresentationsNOhttps://video.igem.org/w/dkirmnMxpv2BDrTACtHvVDhttps://video.igem.org/lazy-static/thumbnails/af002d61-2b52-4c48-b862-f47b515ec8b7.jpgDTU-Denmark: Endosense, Cell free detection of EDCs in water (2024) - Team Presentation [English]**Title:** Endosense, Cell free detection of EDCs in water **Description:** DTU Biobuilders 2024 iGEM project: Endosense, Presentation video [Wiki](https://2024.igem.wiki/dtu-denmark) | [Official Page](https://teams.igem.org/5107)https://static.igem.org/peertube/streaming-playlists/hls/63df8aa2-5177-4b43-a842-06500b63cfd3/91657a5b-bbbc-4ed6-bdfe-c630dc8b4bbf-master.m3u8https://video.igem.org/videos/embed/dkirmnMxpv2BDrTACtHvVD6310162024-10-11T02:30:26.276ZYES2024 PresentationsNOhttps://video.igem.org/w/deTR46GUUAjMhpoHMBQ7fThttps://video.igem.org/lazy-static/thumbnails/0831fed8-ea84-4793-98cc-e3b9c1b8a59d.jpgPennState: ROSA: Riboswitch Operated Sensor Apparatus (2024) - Team Presentation [English]**Title:** ROSA: Riboswitch Operated Sensor Apparatus **Description:** Gene-circuit-based sensors have significantly advanced medical diagnostics by enabling sensitive and specific biomarker detection. However, developing point-of-care diagnostics that are timely, cost-effective, and minimally invasive remains challenging. Our project, ROSA (Riboswitch Operated Sensor Apparatus), addresses this by creating a versatile, proof-of-concept detection method applicable in various medical settings. We engineered a riboswitch-based system to detect the biomarker CA125, demonstrating the simplicity and adaptability of novel riboswitch development. The biosensor functions in a cell-free system, where trehalase expression catalyzes the hydrolysis of excess trehalose into glucose, which can then be quantified using a standard glucose meter. This glucose meter-based reporting mechanism underscores the potential for adaptable, point-of-care diagnostics with broad applications in healthcare. [Wiki](https://2024.igem.wiki/pennstate) | [Official Page](https://teams.igem.org/5144)https://static.igem.org/peertube/streaming-playlists/hls/631e48b4-ba88-4163-bc7f-7cc6fa8f7247/8e1d84e7-8a51-4ef1-9be2-56f2705b289e-master.m3u8https://video.igem.org/videos/embed/deTR46GUUAjMhpoHMBQ7fT8990472024-10-11T02:33:39.952ZYES2024 PresentationsNOhttps://video.igem.org/w/hhakgH1qHPdY5QV9iHBHfxhttps://video.igem.org/lazy-static/thumbnails/dee767be-245d-4468-bc11-b228edb1b1a9.jpgFormosa: BOROHMA: A L-Borneol-based Minicell Insect-Repellent Fragrance. (2024) - Team Presentati...**Title:** BOROHMA: A L-Borneol-based Minicell Insect-Repellent Fragrance. **Description:** Our island home, the tropical country of Taiwan, is seasonally plagued by insects such as mosquitoes, ticks, flies, and mites. During the hot and humid summer months, mosquitoes and other insects breed in abundance, causing anything from minor itches to infectious diseases. Conventional active ingredients in insect-repellents such as DEET, while effective and cheap, have an unpleasant odor, cause allergies, and aren't environmentally friendly. As a country with an increasingly vibrant lifestyle, we also noticed the ever-rising popularity of fragrances. Our project, BOROHMA, combines insect-repellency and great aroma to create a customizable insect-repellent fragrance; we do so by biosynthesizing L-borneol, a pleasant-smelling and insect-repelling camphor derivative, and encapsulating it into specially engineered bacterial minicell to create a fabric-grabbing borneol-release system. This system is then mixed with different ingredients to craft smells that people love. By using borneol, we also honor our country’s booming camphor industry in the early 20th century. [Wiki](https://2024.igem.wiki/formosa) | [Official Page](https://teams.igem.org/5437)https://static.igem.org/peertube/streaming-playlists/hls/83d3debd-fdb3-442e-b44b-62e7c0267f37/d6812c96-6d4a-437e-9225-f8550e21bd5c-master.m3u8https://video.igem.org/videos/embed/hhakgH1qHPdY5QV9iHBHfx89801562024-10-11T02:39:19.728ZYES2024 PresentationsNOhttps://video.igem.org/w/do5w9zCadWFYxK9EzRZyWMhttps://video.igem.org/lazy-static/thumbnails/f1203a5b-6b37-40cf-98c2-f1a0b46c782b.jpgMexico: Agropip - A sustainable biopesticide to target the Fall-Armyworm (2024) - Team Presentati...**Title:** Agropip - A sustainable biopesticide to target the Fall-Armyworm **Description:** This project aims to develop an environmentally friendly pesticide that poses less risk to human health compared to existing products in Cosalá, Sinaloa, Mexico. We will use Saccharomyces cerevisiae for the production of piperamides, bioactive compounds derived from black pepper (Piper nigrum). These piperamides have been proven effective against the larvae and eggs of the fall armyworm (Spodoptera frugiperda), the most significant pest of maize in Mexico and globally. We have integrated insights from climate experts, politicians, farmers, and other stakeholders to shift our perspective towards considering sustainable alternatives. We don't just embrace our solution; we embrace solving the problem. Our diverse models provide strong evidence that bioinformatics and mathematics are powerful tools for developing impactful solutions, from differential expression analysis to molecular dynamics simulations and ODEs simulations. [Wiki](https://2024.igem.wiki/mexico) | [Official Page](https://teams.igem.org/5479)https://static.igem.org/peertube/streaming-playlists/hls/6442cff1-9e3a-4017-b5c8-465058f45801/1b74ee1e-d039-4a48-a3be-4a077ebb92ca-master.m3u8https://video.igem.org/videos/embed/do5w9zCadWFYxK9EzRZyWM8830342024-10-11T02:41:51.307ZYES2024 PresentationsNOhttps://video.igem.org/w/uZQ6EVcNz8V8Cf8ZAxp2Wihttps://video.igem.org/lazy-static/thumbnails/4e79a779-4dc9-4787-83e4-624ddf302bd7.jpgUPF-Barcelona: SkinBAIT: Revolutionizing Parasite Treatment with Synthetic Biology (2024) - Team ...**Title:** SkinBAIT: Revolutionizing Parasite Treatment with Synthetic Biology **Description:** Discover SkinBAIT, our innovative solution to skin parasite infestations, using scabies as a proof-of-concept for a growing issue where current treatments are losing effectiveness. This video delves into our holistic approach, covering everything from our cutting-edge wet lab work to developing mathematical models that shape our treatment strategies. We also highlight our commitment to Human Practices, education, and collaboration with experts, ensuring our project is not only scientifically sound but also socially responsible. Get a behind-the-scenes look at how we're revolutionizing the future of parasite treatment! [Wiki](https://2024.igem.wiki/upf-barcelona) | [Official Page](https://teams.igem.org/5311)https://static.igem.org/peertube/streaming-playlists/hls/ead2eb2e-6c4e-4994-8455-570138839ef9/219d5411-bc48-46de-9dbb-21a8364dc534-master.m3u8https://video.igem.org/videos/embed/uZQ6EVcNz8V8Cf8ZAxp2Wi8670322024-10-11T02:52:31.751ZYES2024 PresentationsNOhttps://video.igem.org/w/cEtP3XjHu85rZoWNJ9iys5https://video.igem.org/lazy-static/thumbnails/800a4c5c-99be-45a6-861a-56feb33e1036.jpgUniMuenster: NOsquito - The Ultimate Bug Fix (2024) - Team Presentation [English]**Title:** NOsquito - The Ultimate Bug Fix **Description:** Mosquitoes are the single most deadly animal to humans due to their role as vectors for parasitic and viral diseases. The least polluting method of controlling this epidemic is the use of insect repellents. However, their current production relies on petroleum and toxic intermediates, posing a major threat to the environment. So, we developed a biosynthetic pathway to produce a promising alternative to current repellents: NBP. We designed and partially constructed an enzyme cascade to produce NBP from sugar feedstocks. To improve the catalytic activity of our key enzyme, we devel-oped the software tool 'seq-mutator', which bridges the gap between AI-assisted protein engineering and real-world data, ultimately resulting in a variant with about a five-fold increase in activity. We also explored the use of black pepper as a sustainable production chassis by developing novel transformation protocols, and by producing NBP in Nicotiana benthamiana as proof of concept. [Wiki](https://2024.igem.wiki/unimuenster) | [Official Page](https://teams.igem.org/5164)https://static.igem.org/peertube/streaming-playlists/hls/5e73ed83-f865-4bd3-95e4-ffcbab872650/63a0da12-45fb-4e3f-ab49-0fee08842da6-master.m3u8https://video.igem.org/videos/embed/cEtP3XjHu85rZoWNJ9iys582351052024-10-11T03:44:45.833ZYES2024 PresentationsNOhttps://video.igem.org/w/ty2PNbba4mgReoKp6ozMruhttps://video.igem.org/lazy-static/thumbnails/24eb031a-0c8b-4814-8974-4fd72b938f9c.jpgGCM-KY: Multi-Pathway Approach to a Bioengineered Fluorescent PFAS Sensor (2024) - Team Presentat...**Title:** Multi-Pathway Approach to a Bioengineered Fluorescent PFAS Sensor **Description:** PFAS are a large and diverse family of synthetic chemicals manufactured for industrial and consumer products beginning in the 1950s. These chemicals all have at least one fully fluorinated carbon bond that gives them a great resistance to breakdown in the environment. Originally developed for their water- and grease-resistant properties, PFAS are found in products that range from nonstick cookware to food wrappings, water-repellent fabrics, and firefighting foams. As they are found in these products, they are serious health and environmental concerns since they might be toxic and persist in the environment. They also tend to bioaccumulate over time without degradation. Of the many PFAS compounds, some like PFOA (Perfluorooctanoic Acid) and PFOS (Perfluorooctane Sulfonate) have been linked to serious health problems such as cancer, liver damage, and developmental problems for children. While both PFOA and PFOS have been largely phased out of commercial use in the United States, they continue to persist in the environment. Newer alternatives, such as GenX, have been developed but also carry risks; studies have linked them to liver and kidney damage. Other PFAS chemicals include the use of PFBS and PFHxS, though most of those remain under scrutiny over health effects. The problem is that its overwhelming application in industries contaminated drinking water, soil, and even the atmosphere. This calls for regulatory authorities like the EPA to set a regulation aimed at reducing the environmental and health risks caused by these chemicals. However, due to the very low thresholds for toxicity, detection of PFAS is extremely expensive and inaccessible to most. In this project, we aim to create a more accessible method to detect PFAS. The current standard is liquid chromatography/mass spectroscopy, which requires extremely expensive machines that are usually exclusive to large r...https://static.igem.org/peertube/streaming-playlists/hls/df1fab28-49e2-4782-80b0-32ae6e18b702/63145f96-2615-4cc8-9e15-ff88f047c757-master.m3u8https://video.igem.org/videos/embed/ty2PNbba4mgReoKp6ozMru8990392024-10-11T02:55:27.183ZYES2024 PresentationsNOhttps://video.igem.org/w/vDean7QquNS9hE4WsFa6Cdhttps://video.igem.org/lazy-static/thumbnails/804206ef-52b5-4f23-a3f6-b21b9a82092f.jpgGEC-Beijing: “Jeans Care Kit” , an Eco-Friendly and Cost-Effective Way to DIY Yo... (2024) - Team...**Title:** “Jeans Care Kit” , an Eco-Friendly and Cost-Effective Way to DIY Your Jeans **Description:** Denim jeans, a timeless fashion staple, often require treatments like bleaching, fraying, and stain removal. Traditional methods, such as chemical bleaching and mechanical fraying, pose environmental and health risks, including water pollution and excessive resource use. To address this, our iGEM team, “New Jeans,” developed an enzyme-based solution using engineered E. coli BL21. We produce laccase for bleaching, cellulase for fraying, lipase for stain removal, and catalase to boost laccase efficiency. This eco-friendly "Jeans Care Kit" reduces chemical reliance, cuts water usage, and allows consumers to customize denim care at home. Our approach promotes sustainability by extending denim's lifespan and reducing waste, with cost-effective large-scale enzyme production. [Wiki](https://2024.igem.wiki/gec-beijing) | [Official Page](https://teams.igem.org/5458)https://static.igem.org/peertube/streaming-playlists/hls/f00ba6d3-48c1-465c-8b79-5d59f911cc00/72cc0c5e-52fa-47db-bc5b-e39257b335f6-master.m3u8https://video.igem.org/videos/embed/vDean7QquNS9hE4WsFa6Cd8460242024-10-11T00:26:43.917ZYES2024 PresentationsNOhttps://video.igem.org/w/qh6A3igkZWEJWuvtX7LPENhttps://video.igem.org/lazy-static/thumbnails/361bc674-4374-41bf-97e4-8c5d16b174f6.jpgSCUT-China-S: Kelp: Nature's Answer to the Climate Crisis (2024) - Team Presentation [English]**Title:** Kelp: Nature's Answer to the Climate Crisis **Description:** Kelp holds immense potential! Facing a series of greenhouse effect issues, we aspire to efficiently capture carbon dioxide and convert it into valuable products. As a blue carbon biomass, kelp offers significant advantages: it can absorb large amounts of carbon dioxide and is part of the third generation of biomass resources, characterized by sustainable utilization. However, its potential for biotransformation remains largely untapped. To expand kelp's applications, we focus on operating synthetic biology techniques to address several challenges: the inefficient utilization of kelp’s unconventional carbon sources, the low value of products directly converted from kelp and the lack of an effective pretreatment process to feed yeast. We pioneer a Saccharomyces cerevisiae chassis cell capable of utilizing kelp carbon sources to synthesize limonene, and develop a complete processing route from raw kelp to limonene products. We have achieved a significant breakthrough from 0 to 1 and now to 10! [Wiki](https://2024.igem.wiki/scut-china-s) | [Official Page](https://teams.igem.org/5409)https://static.igem.org/peertube/streaming-playlists/hls/c49aabd3-f561-4285-abac-59a06d46ce46/ccbd30b5-d020-457e-8134-7ef52164b53b-master.m3u8https://video.igem.org/videos/embed/qh6A3igkZWEJWuvtX7LPEN8730252024-10-11T00:32:05.492ZYES2024 PresentationsNOhttps://video.igem.org/w/oPfFS5BFe5qy4eTgDdX8WWhttps://video.igem.org/lazy-static/thumbnails/a20ec20e-514e-4409-8da4-eaa4530aba40.jpgHarvard: ACQuIRE: Adaptive Cell-Free Quorum Integrated Release Engine (2024) - Team Presentation ...**Title:** ACQuIRE: Adaptive Cell-Free Quorum Integrated Release Engine **Description:** Harvard iGEM 2024 Video - ACQuIRE, Adaptive Cell-Free Quorum Integrated Release Engine [Wiki](https://2024.igem.wiki/harvard) | [Official Page](https://teams.igem.org/5472)https://static.igem.org/peertube/streaming-playlists/hls/b8c20f1f-e4e0-4064-9fdf-fc40a3adb426/bfdd232a-3117-4cc4-9e2f-0a3dc163408d-master.m3u8https://video.igem.org/videos/embed/oPfFS5BFe5qy4eTgDdX8WW9000322024-10-11T00:32:12.689ZYES2024 PresentationsNOhttps://video.igem.org/w/hDSoK9KyWmMUtyRXt6ZBk4https://video.igem.org/lazy-static/thumbnails/99582392-6e3a-468f-a1c9-44233b23e183.jpgEHSBNU: Expression and purification of horseshoe crab clotting Factor G (2024) - Team Presentatio...**Title:** Expression and purification of horseshoe crab clotting Factor G **Description:** Horseshoe crabs currently face extinction due to blood harvest for medical research. Sourcing natural horseshoe crab hemolymph, which is involved in endotoxin and fungal infection detection systems, are therefore ecologically unsustainable. In this study, we recombinantly produced Tachypleus tridentatus clotting factor G, a heterodimeric protein consisting of alpha and beta subunits, to reconstruct the (1→3)-β-D-glucans (BDG) assay system for fungal infection. We optimized and cloned the alpha and beta subunit sequences into pET-28a, pET-Duet1, and pFastBac1 vectors, hoping to express them in both Escherichia coli and Sf9 insect cells. Assay with SDS-PAGE and mass spectrometry indicated the successful expression of both subunits in E.coli cells. The protein would then be purified and tested for BDG-dependent activation. In our eukaryotic experiments, we have finished blue-white screening and would subsequently perform protein expression. Our findings contribute to the development of alternative diagnostic tools for fungal infection while addressing ecological concerns. [Wiki](https://2024.igem.wiki/ehsbnu) | [Official Page](https://teams.igem.org/5173)https://static.igem.org/peertube/streaming-playlists/hls/86dbcb16-3c2b-444e-81dc-edc5a4e33c95/09c06ef5-1384-446c-888f-373cef3d4d68-master.m3u8https://video.igem.org/videos/embed/hDSoK9KyWmMUtyRXt6ZBk48850182024-10-11T00:45:18.998ZYES2024 PresentationsNOhttps://video.igem.org/w/bfHViKzCRiZzHzYV1UTu4phttps://video.igem.org/lazy-static/thumbnails/e13cc2d9-6fc0-4fab-82a3-facef9708f33.jpgTUPLS-Japan: Eneducer:Stories of Converting radiation into usable energy (2024) - Team Presentati...**Title:** Eneducer:Stories of Converting radiation into usable energy **Description:** We propose the “ENEducer” so that synthetic organisms can be used in space. In order to grow microorganisms in space, they need to withstand damage from radiation, and they need to acquire energy in space, which is a different environment from Earth.” ENEducer” is a solution to this problem, we have created a safe system by introducing radiation-protective melanin into electrochemically active bacteria that emit electrons outside the body and turn on a kill switch. We focused on three main areas during the project: safety, human practice, and education. safety was designed to ensure the safety of the project, human practice was designed to ensure the safety of the project, and human practice was designed to ensure that the project was properly evaluated and re-evaluated. In education, we set goals and conducted education activities as Science Communication with specific steps. [Wiki](https://2024.igem.wiki/tupls-japan) | [Official Page](https://teams.igem.org/5140)https://static.igem.org/peertube/streaming-playlists/hls/5309a207-596b-46a2-a226-b1f159aa2c2d/dac3d949-af4d-46de-8473-eaf57efeed01-master.m3u8https://video.igem.org/videos/embed/bfHViKzCRiZzHzYV1UTu4p8980372024-10-11T01:06:52.283ZYES2024 PresentationsNOhttps://video.igem.org/w/qptPRngzXGGuqQsjLEZSJuhttps://video.igem.org/lazy-static/thumbnails/14bb1a14-64fe-4bd5-bd3a-7b6f3e4f409a.jpgWarwick: BEACON: Neodymium Recycling, Reimagined (2024) - Team Presentation [English]**Title:** BEACON: Neodymium Recycling, Reimagined **Description:** By enhancing the lanthanide sensing and uptake mechanisms of Methylobacterium extorquens, our project aims to create an alternative to existing neodymium extraction methods. Genetic engineering is employed for efficient reconcentration, while modelling insights enable us to balance neodymium uptake with cell stress. Beyond the lab, discussions with relevant stakeholders informed our industrial implementation strategies. The end goal? Sustainable, affordable, and effective lanthanide recycling. [Wiki](https://2024.igem.wiki/warwick) | [Official Page](https://teams.igem.org/5277)https://static.igem.org/peertube/streaming-playlists/hls/c5a29513-69e1-4b26-80df-546e92dba6f0/01ab2daf-67c9-4a3d-be80-551eb66e0d5b-master.m3u8https://video.igem.org/videos/embed/qptPRngzXGGuqQsjLEZSJu8560202024-10-11T00:47:25.953ZYES2024 PresentationsNOhttps://video.igem.org/w/cmZ5beSf1TXZyE8eLByAdqhttps://video.igem.org/lazy-static/thumbnails/b8c723ba-6869-4824-84ce-e40fbd1839f5.jpgTU-Dresden: ReFiBa - Enzyme based Recycling of textile Fibers using Bacillus sub... (2024) - Team...**Title:** ReFiBa - Enzyme based Recycling of textile Fibers using Bacillus subtilis **Description:** The exponential growth in global textile production has led to a worrying increase in textile waste, requiring the development of efficient recycling methods. Our team is addressing this issue by focusing on the degradation of the main components of clothing, cotton and polyester, using cellulases and PETases. We are exploring two strategies for protein production. First, induced expression as a reference approach, where we aim to find enzymes that are functional in Bacillus subtilis as an expression host. Second, spore surface display as a final strategy, where promising enzymes are immobilized on B. subtilis endospores which might improve enzyme stability and reusability. These spores are well suited as an immobilization platform, as they are resistant to harsh conditions. Both approaches aim to facilitate the degradation of mixed textiles into reusable chemicals. Through our project ReFiBa, we aim to develop a circular economy concept that promotes sustainable textile recycling and offers a promising solution to the global textile waste problem. [Wiki](https://2024.igem.wiki/tu-dresden) | [Official Page](https://teams.igem.org/5117)https://static.igem.org/peertube/streaming-playlists/hls/5c029291-ab8e-4c54-af29-016cff747408/b648be80-3738-48d7-9d1b-dde798ed1276-master.m3u8https://video.igem.org/videos/embed/cmZ5beSf1TXZyE8eLByAdq8020742024-10-11T00:54:52.891ZYES2024 PresentationsNOhttps://video.igem.org/w/iDApjhXdu825bbRLWoN3dAhttps://video.igem.org/lazy-static/thumbnails/898b7b80-4409-475d-892d-3b8dd97b9c66.jpgMIT-MAHE: CAAPI - Coffee ArabicA Protected by Iturin (2024) - Team Presentation [English]**Title:** CAAPI - Coffee ArabicA Protected by Iturin **Description:** This iGEM Season, our project focuses on enhancing the yield of Coffea arabica by tackling the significant challenge posed by coffee leaf rust, caused by the fungus Hemileia vastatrix. Through innovative synthetic biology approaches, we aim to fortify the resilience of coffee plants against this devastating disease, providing a sustainable solution for coffee farmers facing the relentless threat of CLR. Our project seeks to develop a bio-fungicide specifically designed to combat coffee leaf rust, thereby increasing crop yield while reducing reliance on hazardous chemical alternatives. This presentation showcases our methodology, our findings and the potential impact of our work on sustainable coffee farming. [Wiki](https://2024.igem.wiki/mit-mahe) | [Official Page](https://teams.igem.org/5141)https://static.igem.org/peertube/streaming-playlists/hls/8eeb13e3-6dfa-4b75-9eb2-158cd584aaf2/b4bc4e0c-bb34-406b-afe4-f34ae6b44698-master.m3u8https://video.igem.org/videos/embed/iDApjhXdu825bbRLWoN3dA8390712024-10-11T00:59:57.975ZYES2024 PresentationsNOhttps://video.igem.org/w/78qQShLuTQsC8uSvxLHuYchttps://video.igem.org/lazy-static/thumbnails/9f995a79-b645-416c-aa6c-411a2c17cf76.jpgNYU-Abu-Dhabi: REEFORM! Engineering the Coral Microbiome (2024) - Team Presentation [English]**Title:** REEFORM! Engineering the Coral Microbiome **Description:** Corals, though occupying less than 1% of the ocean’s surface, support a quarter of marine life. They are increasingly threatened by rising temperatures and diseases. Coral microbiomes play a key role in traits like heat tolerance and pathogen defense. This research seeks to enhance these traits using synthetic biology. Genes related to heat tolerance and pathogen defense were overexpressed in Symbiodiniaceae and Endozoicomonas. We conducted over 40 bacterial transformations, building 17 transcriptional units via Golden Gate Assembly. Additionally, we developed a bioinformatics pipeline, identifying over 500 gene regulatory elements. Lastly, we designed a microfluidic electroporation device, improving its fabrication with 3D printing to increase transformation efficiency. [Wiki](https://2024.igem.wiki/nyu-abu-dhabi) | [Official Page](https://teams.igem.org/5125)https://static.igem.org/peertube/streaming-playlists/hls/31a0591d-7f45-4833-8ea2-06235b395e73/12d0fb2a-b5aa-4fbd-bdac-31d7a952f41b-master.m3u8https://video.igem.org/videos/embed/78qQShLuTQsC8uSvxLHuYc8920362024-10-11T01:03:26.762ZYES2024 PresentationsNOhttps://video.igem.org/w/etLYrsbBApVapangYRJHsNhttps://video.igem.org/lazy-static/thumbnails/84a511f6-82e1-421c-9e53-c052af48d7f2.jpgSG-Raffles: DHA-licious Lactis (2024) - Team Presentation [English]**Title:** DHA-licious Lactis **Description:** Team SG-Raffles presents DHA-licious Lactis. Docosahexaenoic acid (DHA) is an omega-3 fatty acid that has many important functions in the human body. It plays a key role in the development of eye and nerve tissues, reduces the risk of heart and circulatory disease, and can even be used in the treatment of neurological and neuropsychiatric disorders among many other functions. DHA is primarily extracted from fish oil, a method which has many adverse impacts. Firstly, the yield of DHA can be inconsistent due to the wide variety of factors affecting it such as seasonal changes and marine pollution. DHA extraction also encourages overfishing which has drastic impacts on the marine ecosystem in the long run. Fish can also accumulate contaminants such as heavy metals, polychlorinated biphenyls (PCBs), and other environmental toxins, which necessitate additional purification steps during DHA production. Hence, we sought to develop a cheaper and more sustainable method of DHA production by utilising Lactococcus lactis; more specifically, by inserting the FADS2 gene, a key gene involved in the ∆4-desaturase-dependent pathway of DHA synthesis, into L. lactis, thereby enabling them to synthesise DHA from DPA. [Wiki](https://2024.igem.wiki/sg-raffles) | [Official Page](https://teams.igem.org/5390)https://static.igem.org/peertube/streaming-playlists/hls/6d27999a-b7a2-46e2-91c1-ac7e8b425bb6/29d65e0d-825e-4dda-9d9b-50f55fe643ba-master.m3u8https://video.igem.org/videos/embed/etLYrsbBApVapangYRJHsN5730232024-10-11T01:04:14.605ZYES2024 PresentationsNOhttps://video.igem.org/w/nnDQyWRThPsbQ6PkSjwazhhttps://video.igem.org/lazy-static/thumbnails/12dd54af-0a63-49e6-b766-05d1bb90558f.jpgJiangnan-China: The PET Degradation STORM: Unleashing PETase's Power with PET-Bi... (2024) - Team...**Title:** The PET Degradation STORM: Unleashing PETase's Power with PET-Binding Peptides **Description:** Polyethylene terephthalate (PET) plastic pollution poses a global environmental issue, and enzymatic degradation is an ideal ecologically friendly solution, yet its efficiency is restricted by limited substrate accessibility of corresponding enzymes. Therefore, our project applied the STROM strategy to boost the degradation ability of PETase towards PET by PET-binding peptides. Initially, sixteen potential PET-binding peptides were screened using deep learning models. Subsequently, fusion proteins of these PET-binding peptides with PETase were constructed to test PET microplastic degradation and binding efficiency, identifying three efficient peptides. Through optimization, the expression levels and PET degradation properties of these fusion proteins were further enhanced. Finally, with the aid of the Mutcompute-super model, these three peptides were re-modified, further improving the expression levels and PET microplastic degradation efficiencies of their fusion proteins, with the optimal degradation efficiency reaching 207.49% of PETase. Our project provides insights and support for the biodegradation of PET plastics. [Wiki](https://2024.igem.wiki/jiangnan-china) | [Official Page](https://teams.igem.org/5157)https://static.igem.org/peertube/streaming-playlists/hls/ad15d961-79e9-4691-9765-fcc18796441e/458ba64e-8f4a-4b80-93f2-c42c98c7298b-master.m3u8https://video.igem.org/videos/embed/nnDQyWRThPsbQ6PkSjwazh8960252024-10-11T00:08:49.269ZYES2024 PresentationsNOhttps://video.igem.org/w/v7uHdUyJr4nyd35Thxpj4Fhttps://video.igem.org/lazy-static/thumbnails/5687e178-cd85-43f4-9bc3-7a64b55bbf17.jpgOUC-Haide: BEST-ABfree: β-glucan efficient synthesis technology to reduce antibi... (2024) - Team...**Title:** BEST-ABfree: β-glucan efficient synthesis technology to reduce antibiotic utilization **Description:** Livestock farming has long been essential for providing high-quality protein and other animal by-products. Antibiotics are extensively used in this industry to ensure stable production. However, misuse of antibiotics leads to environmental residues and the emergence of antibiotic-resistant superbugs, posing significant human health risks. β-glucans, naturally occurring β-D-glucose polysaccharides found in grains, bacteria, and fungi, offer a potential alternative to antibiotics due to their immunomodulatory and anti-inflammatory. β-glucans, particularly from Aureobasidium melanogenum BZ-11, can be efficiently produced via fermentation. This fungus isolated from mangroves secretes extracellular polysaccharides, including β-glucans, but also melanin and pullulan, which complicate the purification process. Using synthetic biology techniques, we employed Cre-loxP to block the secretion of melanin and pullulan, enhancing the purity of β-glucans. Additionally, introducing an oxygen uptake system improved yield. Our optimized fermentation process allows for the efficient production of β-glucans, presenting a viable antibiotic alternative for livestock feed, potentially mitigating antibiotic misuse. [Wiki](https://2024.igem.wiki/ouc-haide) | [Official Page](https://teams.igem.org/5314)https://static.igem.org/peertube/streaming-playlists/hls/ebc12d68-9f23-4b37-940f-12f31f6810a5/53ec50bb-10ff-4649-b3f1-06d829bbd518-master.m3u8https://video.igem.org/videos/embed/v7uHdUyJr4nyd35Thxpj4F8990242024-10-11T01:04:09.933ZYES2024 PresentationsNOhttps://video.igem.org/w/3kapydPeAuKk3KW2fWLUYChttps://video.igem.org/lazy-static/thumbnails/dbab29ac-cefa-4bd2-a08c-53c377015f1f.jpgNYCU-Formosa: CHELO (2024) - Team Presentation [English]**Title:** CHELO **Description:** This year, our project leveraged natural language processing (NLP) to identify relationships between diseases and biomarkers detectable in blood samples from scientific literature. We also designed a diagnostic system using Arduino and developed a workflow for designing peptides that can bind to these biomarkers. For our research focus, we chose leukemia as the disease model, aiming to create an efficient and innovative platform for early detection and treatment design. [Wiki](https://2024.igem.wiki/nycu-formosa) | [Official Page](https://teams.igem.org/5151)https://static.igem.org/peertube/streaming-playlists/hls/12df34a7-ac28-416e-aa4b-b507c523e764/58e4903d-55f6-4627-b80e-66a1f14901cc-master.m3u8https://video.igem.org/videos/embed/3kapydPeAuKk3KW2fWLUYC7860422024-10-11T00:08:44.657ZYES2024 PresentationsNOhttps://video.igem.org/w/2GWrgRDNihfKxsgjdXh34ohttps://video.igem.org/lazy-static/thumbnails/b02466da-47ad-4f43-a478-ba182d4c3ad3.jpgSheffield: Phosphix: Defeating The Phosphogeddon (2024) - Team Presentation [English]**Title:** Phosphix: Defeating The Phosphogeddon **Description:** Modern agriculture relies on the availability of synthetic fertilizers to feed an ever-growing global population. Unfortunately, one of the key components of these fertilizers, inorganic phosphate (Pi) is a finite resource that the world is set to run out of in the coming decades. This impending "Phosphogeddon" crisis will require new methods for recycling phosphate. We propose that phosphatase enzymes like PafA from Flavobacterium johnsoniae will allow us to recycle naturally-occurring organophosphates found in soil. First we set out to characterize PafA, then employed AI-guided protein redesign tools to enhance its expression, stability, and industry-readiness. By deploying our phosphatase with a high-affinity phosphate binding protein (PiBP) in a future waste-water treatment system, we can both effectively convert organophosphates back into inorganic phosphate and captured it for reuse. Overall, our project addresses the looming threat of "phosphogeddon" by both introducing a new source of inorganic phosphate and method for its capture. [Wiki](https://2024.igem.wiki/sheffield) | [Official Page](https://teams.igem.org/5172)https://static.igem.org/peertube/streaming-playlists/hls/0dd06fca-5d96-4a3e-888a-274f6253997c/c560937f-82aa-4074-8fda-b9db687b3e5b-master.m3u8https://video.igem.org/videos/embed/2GWrgRDNihfKxsgjdXh34o8860382024-10-11T00:14:28.449ZYES2024 PresentationsNOhttps://video.igem.org/w/jJi5SQtapLR8d5Px4qW3eNhttps://video.igem.org/lazy-static/thumbnails/56ed6c51-cfdc-461c-8ccc-1d18b216a132.jpgTec-Chihuahua: Zymetec: Cultivating Tradition, Empowering Maize with Biotechnology (2024) - Team ...**Title:** Zymetec: Cultivating Tradition, Empowering Maize with Biotechnology **Description:** Maize, a staple feeding over 3 billion people globally, holds deep cultural, economic, and social significance, especially in Mexico, where it’s intertwined with identity. However, climate change and water scarcity threaten maize, affecting 40% of global crops and endangering food security. To combat this, Zymetec, a biostimulant, enhances maize's stress resistance by boosting the production of osmoprotectants like proline and glycine betaine by activating the metabolic route, improving water use and reducing oxidative stress. Zymetec safeguards maize's nutritional value, ensuring food security, preserving jobs, and supporting cultural traditions, particularly in regions where maize is central to life. [Wiki](https://2024.igem.wiki/tec-chihuahua) | [Official Page](https://teams.igem.org/5288)https://static.igem.org/peertube/streaming-playlists/hls/97ac433d-73f4-4f85-ba36-8cc2a98ceb78/05e5e8b4-caa9-4a6f-a3fd-e388879e77f7-master.m3u8https://video.igem.org/videos/embed/jJi5SQtapLR8d5Px4qW3eN7080382024-10-11T01:39:43.542ZYES2024 PresentationsNOhttps://video.igem.org/w/1wMAe3czkqnC2J6KdXqqVChttps://video.igem.org/lazy-static/thumbnails/d05af94c-8480-4235-b350-9de88352d03e.jpgMunich: progRAM: programmable RNA Access Memory (2024) - Team Presentation [English]**Title:** progRAM: programmable RNA Access Memory **Description:** One might wonder: how much can filmmaking and biology really have in common? At first glance, these two fields seem worlds apart. Or are they? The emerging field of molecular recording is opening up new possibilities for scientists, allowing cells to capture and store information about various biological processes. In our presentation video, we, iGEM Munich 2024, share the journey of creating progRAM—a new generation of molecular recorders, that operates at RNA level. We discuss many intricate details of our project and explore how this innovation is going to transform the future of biology. Enjoy the video! [Wiki](https://2024.igem.wiki/munich) | [Official Page](https://teams.igem.org/5102)https://static.igem.org/peertube/streaming-playlists/hls/044c68b3-59bf-4987-8e7f-11bf903e8a76/34b0aad0-17d2-4f17-9474-e38ffeaec30f-master.m3u8https://video.igem.org/videos/embed/1wMAe3czkqnC2J6KdXqqVC7170542024-10-11T01:44:36.164ZYES2024 PresentationsNOhttps://video.igem.org/w/nHRDZ252NyQ5n8gjzvwoDbhttps://video.igem.org/lazy-static/thumbnails/c124f867-a6dc-47cc-ad42-88de904492e2.jpgNYC-Empire-State: Hydrolink: An Engineered Living Wound Dressing that Targets In... (2024) - Team...**Title:** Hydrolink: An Engineered Living Wound Dressing that Targets Infected Wound Sites **Description:** As of 2023, over 6.5 million people in the United States alone suffer from chronic wounds. This means that annually, around 40 million people deal with painful, slow healing or recurring wounds that are expensive to treat. With Hydrolink, we aim to engineer Lactobacillus reuteri to be able to detect staph. aureus, the most common wound pathogen, and respond by secreting targeted antimicrobial proteins. This detection is achieved with autoinducing peptide (AIP), which is used by staph. aureus for quorum sensing. After achieving successful transformation, the bacteria can be integrated into a hydrogel material to form a living wound dressing. This method has advantages over alternatives like traditional wound dressings, which must be taken off to check for infection, causing pain and inefficiency. In addition to our wet-lab research, we performed computational modeling and developed a fluorometer to be used with the hydrogel product. Our work on entrepreneurship, human practices, and education ensures a comprehensive approach in tackling this global challenge. [Wiki](https://2024.igem.wiki/nyc-empire-state) | [Official Page](https://teams.igem.org/5203)https://static.igem.org/peertube/streaming-playlists/hls/afe801e0-da34-44be-b754-977bd6c725a4/b5ccdf23-4375-47b8-b455-fb0d3d2ec894-master.m3u8https://video.igem.org/videos/embed/nHRDZ252NyQ5n8gjzvwoDb8980322024-10-11T01:44:20.822ZYES2024 PresentationsNOhttps://video.igem.org/w/amnXWjxyBXD5xZTUFSeXeBhttps://video.igem.org/lazy-static/thumbnails/6a5d08e4-fac0-443e-9f7d-ada6c9c48e2d.jpgSquirrel-Beijing: Rose flavonoids tea bags help circadian rhythms disrupted peop... (2024) - Team...**Title:** Rose flavonoids tea bags help circadian rhythms disrupted people staying away from AD **Description:** Due to increased pressures, staying up late and insomnia have become common across all age groups. This chronic circadian rhythms disruptions are proven to accelerate pathological progression of Alzheimer's disease (AD). What can we do in suppressing the adverse progression? In our previous study, by using an AD mouse model with artificially disrupted circadian rhythms, we proved that rose flavonoids had significant inhibitory effects on the adverse progression. Thus, in the present project, we create "ROSE” plan to develop functional tea drinks and alleviates circadian rhythms disruption injuries, including: Firstly, Recreate an cellular AD model with Aβ42 protein; secondely, Observe and identify specific genes by transcriptomics; thirdly, Supplement rose flavonoids into cells and measure expression levels of protein and signal pathway; lastly, Evaluate the inhibitory effects on AD progression and prepare functional tea. Our team innovatively provides dietary intake regulations in reducing AD risk of circadian rhythms disrupted people. [Wiki](https://2024.igem.wiki/squirrel-beijing) | [Official Page](https://teams.igem.org/5457)https://static.igem.org/peertube/streaming-playlists/hls/4bbaa8ce-3822-4a4c-9ab1-f9bfe88305d9/e52ad15c-2aae-4d78-9ae8-223f603a4ab1-master.m3u8https://video.igem.org/videos/embed/amnXWjxyBXD5xZTUFSeXeB8670272024-10-11T01:57:08.314ZYES2024 PresentationsNOhttps://video.igem.org/w/2YykckcQSUTzgpiDKQ3ghUhttps://video.igem.org/lazy-static/thumbnails/64267e59-988b-44e1-b322-b92ac2b5e4f3.jpgUSP-Brazil: Glycoinside out: A new way to think about glycosylation. (2024) - Team Presentation [...**Title:** Glycoinside out: A new way to think about glycosylation. **Description:** Check out our new 2024 documentary on a novel approach to glycoprotein production! [Wiki](https://2024.igem.wiki/usp-brazil) | [Official Page](https://teams.igem.org/5428)https://static.igem.org/peertube/streaming-playlists/hls/0ffeb6e5-73a9-4148-99ee-869a5fb1c4e0/c6f3746e-2ddf-4295-8d00-b60833765607-master.m3u8https://video.igem.org/videos/embed/2YykckcQSUTzgpiDKQ3ghU9000232024-10-11T01:53:49.927ZYES2024 PresentationsNOhttps://video.igem.org/w/aAoXYs3VMNxZ5EMUZJ46W1https://video.igem.org/lazy-static/thumbnails/85508eb7-7f63-4774-8e88-8a312e99c6f3.jpgUSP-EEL-Brazil: Cannabidiol (2024) - Team Presentation [English]**Title:** Cannabidiol **Description:** Cannabidiol (CBD) is a valuable medical compound recognized for its various medicinal properties, such as analgesic, anxiolytic, anticonvulsant and anti-inflammatory. However, CBD acquisition in Brazil is shrouded in bureaucratic and legal complexities, mainly because of its traditional way of being obtained - via extraction from the plant Cannabis sativa, which is illegal to cultivate in Brazil. In order to bypass the extreme regulation over Cannabis sativa in the production of CBD, the CBDynamics Project aims to explore a synthetic alternative to produce cannabidiolic acid (CBDA), the direct precursor of CBD, using recombinant gene technology with Saccharomyces cerevisiae yeast. [Wiki](https://2024.igem.wiki/usp-eel-brazil) | [Official Page](https://teams.igem.org/5452)https://static.igem.org/peertube/streaming-playlists/hls/4dafb057-bad9-46bb-a359-4767c665b928/af70e7c5-3871-48bf-b5f1-4c4b0906cd17-master.m3u8https://video.igem.org/videos/embed/aAoXYs3VMNxZ5EMUZJ46W18950452024-10-11T02:06:44.022ZYES2024 PresentationsNOhttps://video.igem.org/w/68WTWq4vABvRuTJetf83MFhttps://video.igem.org/lazy-static/thumbnails/16e2dd62-823d-416a-9c9d-1e5d1138742c.jpgDBHS-CA: GIX (2024) - Team Presentation [English]**Title:** GIX **Description:** GIX [Wiki](https://2024.igem.wiki/dbhs-ca) | [Official Page](https://teams.igem.org/5535)https://static.igem.org/peertube/streaming-playlists/hls/2999baf0-b1b5-4807-88fc-5e6ffcf98bb9/b92f1fb2-98b9-4a7d-9b89-8cc81939bfa0-master.m3u8https://video.igem.org/videos/embed/68WTWq4vABvRuTJetf83MF7870282024-10-11T01:56:45.215ZYES2024 PresentationsNOhttps://video.igem.org/w/hMk8feJXsYcB56d95WGReehttps://video.igem.org/lazy-static/thumbnails/362c5428-48c7-428a-a761-f2f3351cf893.jpgBUCT-China: MicroDetect —— Illuminating Health with Precision Diagnosis (2024) - Team Presentatio...**Title:** MicroDetect —— Illuminating Health with Precision Diagnosis **Description:** In order to improve the detection limits of current traditional cancer screening methods and change the current dilemma of low compliance with cancer screening in the population, so as to minimize the harms and false-positive situations, while maximizing the benefits of screening and significantly improving the survival rate of patients and the socio-economic burden, the aim of this year's project is to develop a diagnostic platform targeting microRNAs, combining polymerase self-reinforcement and a two-step CRISPR reaction to enable the diagnosis of multiple cancers. The system first uses machine learning to screen microRNA biomarkers of ovarian cancer and non-small cell lung cancer, then amplifies the target signals through a signal self-reinforcement system constructed by a two-step polymerase reaction, and combines with a CRISPR system to realize secondary signal amplification. Ultimately, the results are captured by single-molecule fluorescence super-resolution microscopy to capture fluorescent spots for automated numerical analysis and then obtain diagnostic results. MicroDetect eliminates the need for PCR and is suitable for a wide range of operating environments, with higher accuracy and adjustable high sensitivity, shorter detection time, easier detection methods, and less painful testing processes. [Wiki](https://2024.igem.wiki/buct-china) | [Official Page](https://teams.igem.org/5086)https://static.igem.org/peertube/streaming-playlists/hls/87e6796f-c3bf-434d-85f4-624a4edcd603/13bdce00-0b30-4976-9ddc-e2f8cb7cb704-master.m3u8https://video.igem.org/videos/embed/hMk8feJXsYcB56d95WGRee9000322024-10-11T02:05:50.747ZYES2024 PresentationsNOhttps://video.igem.org/w/iMQWPLmb3tQc8SJ9TSvkKShttps://video.igem.org/lazy-static/thumbnails/2d95b199-0ffd-4c23-8c33-9eac0d2f7afe.jpgTJUSX: Spidey Microbe:Adhesion and interaction Network drug-delivery platform fo... (2024) - Team...**Title:** Spidey Microbe:Adhesion and interaction Network drug-delivery platform for Parkinson's Disease treatment **Description:** The probiotic microbiota holds great potential for treating and alleviating gastrointestinal and gut-brain axis-related diseases. However, its limited intestinal colonization ability and complex microbial interactions restrict its therapeutic application. To overcome these limitations, we have engineered a superhero—Spidey Microbe. We used this to treat Parkinson's Disease. [Wiki](https://2024.igem.wiki/tjusx) | [Official Page](https://teams.igem.org/5376)https://static.igem.org/peertube/streaming-playlists/hls/9011fd8d-9361-4a90-9ac2-026628c0c524/0a0e1e8f-549c-4f84-bb67-263bb4349687-master.m3u8https://video.igem.org/videos/embed/iMQWPLmb3tQc8SJ9TSvkKS9000262024-10-11T02:12:03.192ZYES2024 PresentationsNOhttps://video.igem.org/w/3zWkE7og2K3Kf3MU9f15jahttps://video.igem.org/lazy-static/thumbnails/73918448-e98f-4984-8b24-14875ad1bd2a.jpgGSLZ-A: SynBio missile : barrier clearance and immune enhancement strategy targe... (2024) - Team...**Title:** SynBio missile : barrier clearance and immune enhancement strategy targeting OSCC tumor microenvironment **Description:** Malignant tumor poses a significant challenge due to its complex tumor microenvironment (TME), which often undermines traditional treatments. This TME contains elements that actively suppress the immune system, allowing cancer to proliferate unchecked. Our project targets this immunosuppressive TME with a novel approach: using engineered E. coli ECN1917 to express and secrete proteins that can both break down physical barriers within tumors and stimulate an immune response. [Wiki](https://2024.igem.wiki/gslz-a) | [Official Page](https://teams.igem.org/5512)https://static.igem.org/peertube/streaming-playlists/hls/14ef4f2c-b938-443d-8073-27853637f40d/0b7a1bc2-7afa-441f-ba1a-accf16c846c7-master.m3u8https://video.igem.org/videos/embed/3zWkE7og2K3Kf3MU9f15ja7600172024-10-11T02:04:01.188ZYES2024 PresentationsNOhttps://video.igem.org/w/ahPGCJS4x4LwZjkHx8CcrFhttps://video.igem.org/lazy-static/thumbnails/1bd11f13-f25a-433a-8ca4-9d64c3fc567f.jpgOhioState: MycoBite at The Ohio State University (2024) - Team Presentation [English]**Title:** MycoBite at The Ohio State University **Description:** Globally, we produce 400,000,000 tons of plastic waste every year. That's 45.36 kg of plastic waste per person. Every year. 79% of all plastic ends up in our landfills and ecosystems. And only 9% of plastics are actually recycled. Polyethylene plastic is a leading contributor to pollution, making up 27% of all plastic waste. PE is resistant to degradation due to long carbon chain polymers but there is a solution. Mycoremediation. [Wiki](https://2024.igem.wiki/ohiostate) | [Official Page](https://teams.igem.org/5147)https://static.igem.org/peertube/streaming-playlists/hls/4b3b8b77-00ad-42f2-94ec-ad58f790a98d/af756970-8c3a-43f6-b0a5-1560532563d5-master.m3u8https://video.igem.org/videos/embed/ahPGCJS4x4LwZjkHx8CcrF8260122024-10-11T02:18:18.474ZYES2024 PresentationsNOhttps://video.igem.org/w/2kj78Ar6WyDuxvvBw3sF9Fhttps://video.igem.org/lazy-static/thumbnails/b0472a63-1cf1-4fc1-959a-884e06d95853.jpgSubCat-GreatBay: Golden solutions: the power of AuNPs@PBP in the detection & ste... (2024) - Team...**Title:** Golden solutions: the power of AuNPs@PBP in the detection & sterilization of foodborne bacteria **Description:** Nowadays, food safety has not been comprehensively guaranteed mainly due to the severe health risks foodborne bacteria bring. However, current bacterial detection methods are time-consuming and less accessible. Our team believes that these limitations can be improved by developing a more efficient and effective product by coupling gold nanoparticles that have useful physical properties, with Phage-derived bacterial-binding protein (PBP). This biosensor rapidly binds to three specific bacteria (Escherichia coli, Salmonella, Staphylococcus aureus) within thirty minutes, analyzes their concentrations via RGB values on a smartphone app, and sterilizes bacteria using near-infrared (NIR). Additionally, it achieves efficient antibacterial effects under 808 nm light irradiation for 10 minutes. This study is significant for the detection and elimination of foodborne pathogens for both synthetic biology development and practical influences in the food industry. Furthermore, we will investigate the target market to ensure a pragmatic and applicable product is available to our potential consumers. [Wiki](https://2024.igem.wiki/subcat-greatbay) | [Official Page](https://teams.igem.org/5532)https://static.igem.org/peertube/streaming-playlists/hls/0acb6da6-df51-495f-b19b-266ab5f4d3a3/d483a5f0-5161-4a59-b022-421a18c94813-master.m3u8https://video.igem.org/videos/embed/2kj78Ar6WyDuxvvBw3sF9F8960192024-10-11T02:17:44.071ZYES2024 PresentationsNOhttps://video.igem.org/w/hjNtvzf8zKaenSvkL6obVrhttps://video.igem.org/lazy-static/thumbnails/ec8b1f12-355a-4755-8a63-f8f1ae98c496.jpgKorea-HS: Innovative CO2 Reduction and Sustainable PHB Bioplastic Production Usi... (2024) - Team...**Title:** Innovative CO2 Reduction and Sustainable PHB Bioplastic Production Using Synechocystis Sp. **Description:** This is the presentation video produced by Team Korea-HS. This video features the following agenda items: the problem, our solution (explained both conceptually and experimentally), approaches and protocols, key findings and results (and their implications), and major safety considerations. The submission also presents how Team Korea-HS expanded the experimental aspects to Human Practices, Sustainable Development Impact, and Measurement. [Wiki](https://2024.igem.wiki/korea-hs) | [Official Page](https://teams.igem.org/5404)https://static.igem.org/peertube/streaming-playlists/hls/84323f4a-7642-4041-8b1c-4d4f58c30f03/9ab109f4-48a3-47fd-aaac-749df42fcf3c-master.m3u8https://video.igem.org/videos/embed/hjNtvzf8zKaenSvkL6obVr8980422024-10-11T02:27:02.595ZYES2024 PresentationsNOhttps://video.igem.org/w/u5F8fTSQ4DnGn4UUX7AcsRhttps://video.igem.org/lazy-static/thumbnails/0a5d6e4f-3c05-4631-bda4-953e01af05ff.jpgLethbridgeHS: Bo-Find: A rapid diagnotic tool for the detection of BRD (2024) - Team Presentation...**Title:** Bo-Find: A rapid diagnotic tool for the detection of BRD **Description:** The Lethbridge high school iGEM team created an RPA-based device for the detection of bovine respiratory disease pathogens. This presentation describes their engineering process and their learning outcomes along the way. [Wiki](https://2024.igem.wiki/lethbridgehs) | [Official Page](https://teams.igem.org/5092)https://static.igem.org/peertube/streaming-playlists/hls/e366f822-1293-4623-aa95-8d63a220c7b1/0aa0ba65-7e21-4710-b6d9-c33f0255ae28-master.m3u8https://video.igem.org/videos/embed/u5F8fTSQ4DnGn4UUX7AcsR9010192024-10-11T02:27:40.658ZYES2024 PresentationsNOhttps://video.igem.org/w/tAG2o8ZEBGsrKR81z2UJddhttps://video.igem.org/lazy-static/thumbnails/3c557629-50cd-4dd5-887c-1b460ffc8065.jpgXJTLU-CHINA: EcoMeGa: DHA-PC (2024) - Team Presentation [English]**Title:** EcoMeGa: DHA-PC **Description:** XJTLU-CHINA's project this year focuses on the biosynthesis of phospholipids. EcoMeGa has provided an optimized biomanufacture solution using engineered enzyme, with a significant improvement of over 500% comparing to wild type. This video describes the background, methods, and results of the project EcoMeGa in a logical sequence. This video also presents an overview of some of EcoMeGa‘s details documents, which covers HP, engineering and other sections of our excellence that all await your exploraton. In addition, this video also depicts the prospects of EcoMeGa. Our project is planned to be further applied, and truly facilitate the biomanufacture of DHA-PC. [Wiki](https://2024.igem.wiki/xjtlu-china) | [Official Page](https://teams.igem.org/5255)https://static.igem.org/peertube/streaming-playlists/hls/df7eb293-1034-4d08-8593-53810864fdfc/396aa17b-d278-4b8f-a4fb-c240f2a11d84-master.m3u8https://video.igem.org/videos/embed/tAG2o8ZEBGsrKR81z2UJdd8760542024-10-11T02:42:34.524ZYES2024 PresentationsNOhttps://video.igem.org/w/ugF7T97DuTN6rfvzqU5UsGhttps://video.igem.org/lazy-static/thumbnails/f6f84725-6649-40ac-9440-d14794dc70de.jpgHiZJU-China: CaptuREE: Bioextraction and recovery of lanthanide rare earth elements (2024) - Team...**Title:** CaptuREE: Bioextraction and recovery of lanthanide rare earth elements **Description:** Rare earth elements include scandium, yttrium, and fifteen lanthanide elements, which are valuable natural resources. The scarcity and importance of rare earth elements draw our attention to how to sustainably mine, recycle, and utilize them. This year, the HiZU-China team from Zhejiang University is committed to developing sustainable biomining technology for rare earth elements, achieving efficient recovery through the integration of bioleaching, biosorption, and biosafety modules. Ultimately, we are dedicated to building a future of clean production and sustainable utilization of rare earth elements, allowing them to better serve the development of human society. [Wiki](https://2024.igem.wiki/hizju-china) | [Official Page](https://teams.igem.org/5261)https://static.igem.org/peertube/streaming-playlists/hls/e4f02591-b4f6-4d82-8183-5a9b7b7312fc/07a1a048-2ce0-4b69-930a-de0b44708f9b-master.m3u8https://video.igem.org/videos/embed/ugF7T97DuTN6rfvzqU5UsG7730692024-10-11T02:49:35.857ZYES2024 PresentationsNOhttps://video.igem.org/w/faKA6Xo6AQt5ky9eaLzfrchttps://video.igem.org/lazy-static/thumbnails/e2f68758-94c1-4596-8111-fc7d74338b33.jpgQS-FMI: The degradation of phenolic compounds using nano-membranes embedded with... (2024) - Team...**Title:** The degradation of phenolic compounds using nano-membranes embedded with laccase. **Description:** This the final work of QS-FMI!! The condensed story of the whole year. Thanks for watching!! [Wiki](https://2024.igem.wiki/qs-fmi) | [Official Page](https://teams.igem.org/5386)https://static.igem.org/peertube/streaming-playlists/hls/72bc7f49-7dcb-412a-b5b1-b1bf08dd5975/130d5d28-b3bf-4c2f-96ee-22c639ab5786-master.m3u8https://video.igem.org/videos/embed/faKA6Xo6AQt5ky9eaLzfrc8770122024-10-11T03:00:48.145ZYES2024 PresentationsNOhttps://video.igem.org/w/xkDWfvZSzKttwtc1zW7uDGhttps://video.igem.org/lazy-static/thumbnails/31250989-2e7f-43ea-8700-182eceb3c14e.jpgWashington: Extending antibiotic half-life via designed binder for human albumin (2024) - Team Pr...**Title:** Extending antibiotic half-life via designed binder for human albumin **Description:** An explanation of Team Washington's 2024 albumin binders design process. [Wiki](https://2024.igem.wiki/washington) | [Official Page](https://teams.igem.org/5126)https://static.igem.org/peertube/streaming-playlists/hls/fdc9ceff-1490-40aa-aa91-3912a05f2eea/e9bbcba1-ab3d-4efe-a773-30b38468d428-master.m3u8https://video.igem.org/videos/embed/xkDWfvZSzKttwtc1zW7uDG7570392024-10-11T02:56:46.818ZYES2024 PresentationsNOhttps://video.igem.org/w/c4EPwHX8yDx4F8P1jt3kcZhttps://video.igem.org/lazy-static/thumbnails/53f9fd7b-d6c5-49a0-add3-ec3c53ad5d91.jpgHK-Joint-School: Merging Old and New: Treating non-small cell lung cancer by Cor... (2024) - Team...**Title:** Merging Old and New: Treating non-small cell lung cancer by Cordyceps and AI designed peptide **Description:** We aim to produce two types of engineered proteins to target Non-Small Cell Lung Cancer (NSCLC) and check for any combination effects of those peptides with cisplatin, a common chemotherapy drug. Four peptides from Cordyceps militaris, a well‐known dietary therapy in anticancer treatment, were selected to test their effectiveness to lung cancer. Also, we modified those peptides by adding linker and cell-penetrating peptide. Furthermore, we used RFdiffusion and ProteinMPNN-AI to generate peptide sequences by targeting PDEδ, which regulates KRAS signaling, a common gene mutation in cancerous cells. Then, those peptides were expressed by BL21. Finally, A549, a lung cancer cell line, was used to test the effectiveness of those peptides and check for whether two groups of peptides have any combination effects with cisplatin. If there are combination effects, lower concentration of cisplatin can be used, so that it can reduce the side effects of it. According to the wet lab’s results, ACP5 is found to be the most promising ACP. It can cause a 70% inhibition in viability of 2D cancer cells and 20% inhibition in viability of 3D Multi-Cellular Tumor Spherord (MCTS). Hence, ACP5 is named KAPI ( KRAS and PDEδ Inhibitor ). In a preliminary study, with the supplement of KAPI a reduced concentration of cisplatin can achieve the same percentage of inhibition on cancer cell viability as that at its IC50. [Wiki](https://2024.igem.wiki/hk-joint-school) | [Official Page](https://teams.igem.org/5056)https://static.igem.org/peertube/streaming-playlists/hls/5997ae0f-7066-4772-953b-b969654f9523/c6fadcb5-0392-4bfc-96b1-27d2afdeef2a-master.m3u8https://video.igem.org/videos/embed/c4EPwHX8yDx4F8P1jt3kcZ9000552024-10-11T02:59:10.152ZYES2024 PresentationsNOhttps://video.igem.org/w/6vELJv3gaUqDHjUWvUAktohttps://video.igem.org/lazy-static/thumbnails/5fbb610f-6155-4eb1-af84-d8c9001cf162.jpgHUST-UEVE-UPSaclay: Aqua Guardian^2: PET Degradation and Double Enrichment System (2024) - Team P...**Title:** Aqua Guardian^2: PET Degradation and Double Enrichment System **Description:** Celebrated for its chemical stability, waterproofing and light weight, plastic plays an integral role in modern society, with global production reaching 367 million tonnes by 2021. Notably, China is the leading producer, contributing almost a third of this total. However, the convenience that plastics provide comes at a significant environmental cost, as they contribute to serious pollution. When plastics enter the environment, they can break down into smaller fragments, leading to the formation of microplastics, defined as particles less than 5.0 mm in size. These microplastics pose a serious threat as they are often mistaken for food by aquatic organisms, leading to their ingestion. Current methods for treating microplastics mainly include physical filtration, chemical degradation and biodegradation. However, these methods often face problems such as high cost, low efficiency, and secondary pollution. Hence, more efficient and sustainable solutions are urgently needed. Our research specifically targets the degradation of polyethylene terephthalate (PET), a plastic that has shown potential for biodegradation. Literature suggests that PET, along with polyamide (PA), accounts for a significant proportion of microplastic pollution in the waters of southern China, highlighting the urgent need for effective PET treatment. The main objective of our project is to degrade PET and enrich the degradation product, terephthalic acid (TPA). [Wiki](https://2024.igem.wiki/hust-ueve-upsaclay) | [Official Page](https://teams.igem.org/5233)https://static.igem.org/peertube/streaming-playlists/hls/2ca22800-f4a0-469e-a79e-07967ab01710/85fbac0a-380f-4015-9dd7-390ffbae1a9c-master.m3u8https://video.igem.org/videos/embed/6vELJv3gaUqDHjUWvUAkto8995472024-10-11T03:08:21.035ZYES2024 PresentationsNOhttps://video.igem.org/w/43yJ6EHdGVytfwm6hZiWGshttps://video.igem.org/lazy-static/thumbnails/3561c5ac-f813-4481-9f3a-87454645cfc1.jpgNTU-Taiwan: [SAC] Standardized AI-Powered Platform for Carbon Sequestering Spide... (2024) - Team...**Title:** [SAC] Standardized AI-Powered Platform for Carbon Sequestering Spider Silk Production **Description:** The NTU-Taiwan SAC project focuses on creating an AI-powered platform designed to revolutionize the production of sustainable spider silk. This platform, called SAC (Standardized AI-Powered Platform for Carbon Sequestering Spider Silk Production), integrates cutting-edge AI technologies to generate personalized spider silk sequences with customized mechanical properties. By using industrial waste, such as wastewater, as a carbon source in bioreactors, SAC provides an eco-friendly, carbon-sequestering solution for producing spider silk. The platform addresses the need for biodegradable, high-performance biomaterials while simultaneously reducing carbon emissions and promoting a circular economy. SAC is designed to support a wide range of applications, from textiles and industrial materials to medical fields, with the potential to reshape industries through its scalable, sustainable approach to biomaterial production. [Wiki](https://2024.igem.wiki/ntu-taiwan) | [Official Page](https://teams.igem.org/5294)https://static.igem.org/peertube/streaming-playlists/hls/18a7124f-7268-4a21-8bc4-485102c1053a/ea597ac3-d8c5-436b-9719-672327480957-master.m3u8https://video.igem.org/videos/embed/43yJ6EHdGVytfwm6hZiWGs8950332024-10-11T03:57:43.142ZYES2024 PresentationsNOhttps://video.igem.org/w/jpc6FsDiore6dN3yvX7J9Chttps://video.igem.org/lazy-static/thumbnails/fc683085-09a2-4a4b-8c82-06c50e4c5f0b.jpgUCopenhagen: MilkClear - Nurturing Health, One Drop at a Time (2024) - Team Presentation [English]**Title:** MilkClear - Nurturing Health, One Drop at a Time **Description:** Endocrine-disrupting compounds (EDCs) pose a significant public health challenge, particularly for vulnerable populations like infants. EDCs interfere with the body’s hormonal signalling pathways, which regulate vital functions such as growth, metabolism, and reproduction. These harmful chemicals are pervasive in our environment, found in the air, water, and food we consume daily. Despite efforts to limit exposure, complete avoidance of EDCs is nearly impossible, especially for infants who are exposed through breast milk. Breastfeeding, while highly beneficial, is a potential route of EDC exposure for babies. Due to their hydrophilic nature, many EDCs accumulate in fatty tissues, including breastmilk. Infants are especially vulnerable because their detoxification systems, primarily liver enzymes, are underdeveloped. The reduced activity of phase I and phase II detoxifying enzymes increases the risk of harmful effects from EDCs. Exposure to EDCs in infancy has been correlated with severe health issues, including cognitive disorders, reproductive issues such as early puberty and reduced fertility, and potential lifelong health consequences. Equally concerning is the emotional toll this issue places on parents, who may fear that breastfeeding could inadvertently harm their baby. The stress of this uncertainty can negatively impact their mental health, adding another layer to the already complex role of parenthood. Current solutions, which often involve avoiding breastfeeding altogether, sacrifice the substantial benefits breastfeeding offers, including enhanced immunity, cognitive development, and the deep bond it fosters between parent and child. Our inspiration for MilkClear stems from a desire to preserve the vital practice of breastfeeding while addressing the modern issue of breast milk contamination. Synthetic biology offers the potential to address this problem through innovative so...https://static.igem.org/peertube/streaming-playlists/hls/95017122-bdb1-4453-8f3c-b5888c95575c/bac0428e-46cd-4a1a-93d5-1de1b4c04a30-master.m3u8https://video.igem.org/videos/embed/jpc6FsDiore6dN3yvX7J9C8600492024-10-11T03:17:45.781ZYES2024 PresentationsNOhttps://video.igem.org/w/cGHbz5nX6AJBiGgmL2pe5qhttps://video.igem.org/lazy-static/thumbnails/3e87909d-dffb-442c-8643-76805ea651f9.jpgMarburg: Tarakate - From Rainforest Deforestation to Sustainable Rubber: Using P... (2024) - Team...**Title:** Tarakate - From Rainforest Deforestation to Sustainable Rubber: Using Plant SynBio to Facilitate Dandelion Engineering **Description:** Natural rubber production from Hevea brasiliensis poses significant environmental and economic challenges, including deforestation, labor exploitation, and vulnerability to diseases like South American leaf blight. With a global demand of 15 million tons annually and over 50,000 rubber products, finding sustainable alternatives is critical. Taraxacum kok-saghyz, a rubber-producing dandelion, emerges as a promising solution. Consultations with experts revealed that the primary limitation in dandelion cultivation is not rubber yield but agriculturally significant traits like plant morphology. To address this, we developed a comprehensive collection of characterized genetic parts specific to dandelions, including constitutive regulatory elements. We tested our constructs using four transformation methods - two transient (leaf infiltration and protoplast transformation) and two stable ("extremely simplified cut-dip-budding" and sterile transformation). By creating efficient protocols and tools, we aim to make dandelion a viable chassis for synthetic biology, enabling future iGEM teams to contribute to sustainable rubber production and other applications. [Wiki](https://2024.igem.wiki/marburg) | [Official Page](https://teams.igem.org/5088)https://static.igem.org/peertube/streaming-playlists/hls/5ec3a7d0-348e-403e-a09d-6d2cfe0fc27c/a3b10cc9-fabc-4dc0-8073-d2bc68a7231a-master.m3u8https://video.igem.org/videos/embed/cGHbz5nX6AJBiGgmL2pe5q89903492024-10-11T03:21:27.614ZYES2024 PresentationsNOhttps://video.igem.org/w/g4SmVaK7CAb8VGj5yMkmg9https://video.igem.org/lazy-static/thumbnails/e89c0d72-a7ad-4689-9272-f2f3716d5fe5.jpgCCU-Taiwan: SERENE - Bringing serenity into your lives (2024) - Team Presentation [English]**Title:** SERENE - Bringing serenity into your lives **Description:** In today's fast-paced society, stress and busy lifestyles often lead to persistent negative emotions, which can result in serious consequences such as depression, impacting millions worldwide. To address this issue, we are developing a comprehensive approach that enhances emotional awareness through our stress management app, Pokefish, while also designing genetically modified probiotics to synthesize 5-HTP (5-Hydroxytryptophan), thereby boosting serotonin production in the body. Our innovative strategy involves expressing the necessary enzymes and coenzymes and utilizing scaffolding techniques to optimize 5-HTP production. To increase accessibility, we will deliver these probiotics in an edible film attached to beverage seals, making it easy for individuals to incorporate them into their daily routines. By providing an effective and holistic solution, we aim to improve mood and enhance overall quality of life. [Wiki](https://2024.igem.wiki/ccu-taiwan) | [Official Page](https://teams.igem.org/5040)https://static.igem.org/peertube/streaming-playlists/hls/7a0358d8-6cdd-4858-873d-f4e0f9a96706/76e453a9-19ef-4fae-a5a0-b89a74d8c245-master.m3u8https://video.igem.org/videos/embed/g4SmVaK7CAb8VGj5yMkmg98170752024-10-11T03:26:11.353ZYES2024 PresentationsNOhttps://video.igem.org/w/ubxCfRYq39mBchE2Hub6TYhttps://video.igem.org/lazy-static/thumbnails/c6dfcd38-c593-4466-bb86-c06db14644c3.jpgGreatBay-SCIE: Dienamite: Cease the destruction of spider mites and shield your ... (2024) - Team...**Title:** Dienamite: Cease the destruction of spider mites and shield your beloved plants **Description:** Spider mites (acariformes: Tetranychidae) are notorious pests that destroys worldwide agriculture and horticulture. It is found on more than 800 plant hosts, causing severe damage to them by sucking out the cell contents of leaves. Most problematically, spider mites has abundant progenies and a short life cycle of 7 days. Therefore, they spread across the world pervasively and develop resistance to chemical pesticides at an exponential rate, making them difficult to exterminate using current strategies. Determined to resolve this global challenge, GreatBay-SCIE thus proposed a thorough solution called Dienamite, which is safe for humans, sustainable to the environment, and difficult for resistance development. Uniquely, by synthesizing 7-Epizingiberene (7epiZ), 9-hydroxy-zingiberene (9HZ), 9-hydroxy-10,11-epoxy zingiberene (9H10epoZ), mite and spider venom peptide, and harpin protein, Dienamite is capable of shielding plants at different stages. During the pre-infection stage, 7epiZ, 9HZ and 9H10epoZ establish repelling and progeny-reducing effects towards adult mites, preventing further infestation. During the mid-infection stage, venom peptides derived from predatory mites and various spider species are utilized to paralyze and kill adult mites by targeting their central nervous system. These neurotoxins can bind to various ion channels including NaV, KV, and CaV, making it difficult for the mites to develop resistance. During the post-infection stage, harpin protein is used to boost plant immunity and promote plant growth. The three desired subtances are placed into separate containers, therefore the target customers can purchase them individually, addressing their diverse demands. Ultimately, we wish to bring prosperity back to gardens and augment agricultural production. We also believe that the emergence of Dienamite provides worldwide users a more e...https://static.igem.org/peertube/streaming-playlists/hls/e438cf51-faeb-432e-84ca-dd1d47eca6aa/20d73691-0d3a-4692-a526-cf8f43892b22-master.m3u8https://video.igem.org/videos/embed/ubxCfRYq39mBchE2Hub6TY87708212024-10-11T04:00:35.231ZYES2024 PresentationsNOhttps://video.igem.org/w/svB7LdGVQ9K8CgMgjrofNqhttps://video.igem.org/lazy-static/thumbnails/10ad0e00-16ba-481e-940f-ef152f76aa2c.jpgTERMOSZ-Selye-HUN: HISTAMINA - Skinguard (2024) - Team Presentation [English]**Title:** HISTAMINA - Skinguard **Description:** This is the Presentation Video of the TERMOSZ-Selye-HUN team's HISTAMINA project. The video speaks about the background of the team, the experimental design, our Education subproject and the Business Plan. The recording and editing was made by the Communication Group of our team. [Wiki](https://2024.igem.wiki/termosz-selye-hun) | [Official Page](https://teams.igem.org/5492)https://static.igem.org/peertube/streaming-playlists/hls/d6afd0dc-24b4-4860-a07b-313a0e92aefc/b043382e-e773-45ee-a8ae-75a2dcf55032-master.m3u8https://video.igem.org/videos/embed/svB7LdGVQ9K8CgMgjrofNq7960342024-10-11T03:41:39.351ZYES2024 PresentationsNOhttps://video.igem.org/w/9UkEHmJRsXuoRwqBKDAj5rhttps://video.igem.org/lazy-static/thumbnails/ceb4e3d7-8791-4b4f-8a12-103b0c0ea5d7.jpgFudan: MINERAL: Microparticle Integration for Nickel Extraction and Reusable App... (2024) - Team...**Title:** MINERAL: Microparticle Integration for Nickel Extraction and Reusable Applications **Description:** MINERAL is committed to address the growing problem of heavy metal pollution in the environment. Our engineered bacteria can selectively absorb nickel ion from water. Utilizing carboxysome-targeted hydronases, nickel ions are converted into microparticles within the bacteria. This innovative metal ion reduction strategy, which we developed and tested, can be readily adapted for other heavy metals. Our modular design is flexible, allowing for efficient recovery and environmental protection across a wider range of heavy metal pollution problems. Here, we present a detailed explanation of our project, including experimental methods, key results, and lessons learned. Additionally, we developed our inclusive program to enhance the accessibility of synthetic biology for the autism community. [Wiki](https://2024.igem.wiki/fudan) | [Official Page](https://teams.igem.org/5115)https://static.igem.org/peertube/streaming-playlists/hls/4817e7e4-446b-4760-b866-2817794b02c9/1efcbd3a-f504-4aa9-aa74-61a46b5b3c72-master.m3u8https://video.igem.org/videos/embed/9UkEHmJRsXuoRwqBKDAj5r88403842024-10-11T03:51:02.680ZYES2024 PresentationsNOhttps://video.igem.org/w/jWPBQx4nQsjeaEt9DJE7KJhttps://video.igem.org/lazy-static/thumbnails/21144ff0-59b3-44d0-bb49-17dfab215956.jpgTaipei-KCISLK-V2: 《Digiworm》Smart Dental Braces for Cardiovascular Monitoring (2024) - Team Prese...**Title:** 《Digiworm》Smart Dental Braces for Cardiovascular Monitoring **Description:** Our product contains a detection kit, smart braces, and an app. The main function of the detection kit is to help test for the risk of CVDs. Patients will need a small sample of blood to test the concentration of the target in their body that will help indicate their risk of getting CVDs Our detection kit result with a color change that reflects on the concentration of the target, the more ​vibrant the yellow color is, the higher the concentration of the target was detected, and therefore a higher risk that the patient will be getting CVDs. After each test, patients are required to take a picture of the result using an app programmed and designed by Digiworm. The app will process the shades of yellow through the picture to determine the concentration of the target. If the concentration of the target is found too high in the patient’s body, the smart braces will be activated. The smart braces can be seen as two parts, with the first part being a LED light used for sending signals, and the second part containing an E.coli that produces Lumbrokinase. After the smart braces is activated, a signal is sent to the LED light, turning it on. Triggered by the light from the LED, the E.coli will begin to produce and release Lumbrokinase into the patient's mouth. [Wiki](https://2024.igem.wiki/taipei-kcislk-v2) | [Official Page](https://teams.igem.org/5042)https://static.igem.org/peertube/streaming-playlists/hls/996c0148-e72d-4418-8558-2ad64c4380f0/ea918de4-b271-426c-b2ab-9c05e5af817e-master.m3u8https://video.igem.org/videos/embed/jWPBQx4nQsjeaEt9DJE7KJ85653822024-10-11T03:54:31.403ZYES2024 PresentationsNOhttps://video.igem.org/w/n2EPfLeVDU1nGhSjGURpAxhttps://video.igem.org/lazy-static/thumbnails/10e63fcd-4ac0-43df-abb8-4605feeb0666.jpgAshesiGhana: Sea Titans (2024) - Team Presentation [English]**Title:** Sea Titans **Description:** Presentation video for AshesiGhana, the Sea Titans' project on using engineered bacteria to tackle the issue of coastal erosion and plastic pollution in Ghana. [Wiki](https://2024.igem.wiki/ashesighana) | [Official Page](https://teams.igem.org/5312)https://static.igem.org/peertube/streaming-playlists/hls/aa4b9378-9b65-4924-b9dc-58f676cb5177/c41dfd94-9496-4caf-8663-7384383b7b02-master.m3u8https://video.igem.org/videos/embed/n2EPfLeVDU1nGhSjGURpAx8970542024-10-11T03:59:49.589ZYES2024 PresentationsNOhttps://video.igem.org/w/2ZLujyURziW3EvWzm9CfrHhttps://video.igem.org/lazy-static/thumbnails/e25837a2-e834-419a-8c15-455dec348f7c.jpgStockholm: BioGlimmer (2024) - Team Presentation [English]**Title:** BioGlimmer **Description:** BioGlimmer is a project based upon the utilization of Synthetic Biology to produce guanine crystals as a better alternative to current ingredients on the market used to produce the shimmer in cosmetic products. This video displays the motivation behind our project and how we executed our ideas from the initial design and experimental stage, to our collaborations and talks with different people regarding our project. [Wiki](https://2024.igem.wiki/stockholm) | [Official Page](https://teams.igem.org/5122)https://static.igem.org/peertube/streaming-playlists/hls/1029f34f-1594-4839-8771-eb262ff66aab/66d33945-1133-49fa-89c7-001c13c01b66-master.m3u8https://video.igem.org/videos/embed/2ZLujyURziW3EvWzm9CfrH7110622024-10-11T03:57:49.112ZYES2024 PresentationsNOhttps://video.igem.org/w/76Q9jSu7YD2gJNJ8z7r9pehttps://video.igem.org/lazy-static/thumbnails/6c68e93f-34cd-4172-bc27-2c9873fcd0f4.jpgSCUT-China-A: Welcome to our HaloWorld (2024) - Team Presentation [English]**Title:** Welcome to our HaloWorld **Description:** Our presentation video contains an overview of all the work and achievements of our project team since its establishment. Our content revolves around the use of carbon dioxide-derived electrolyte by Halomonas to produce various high value-added products, including project background, wet lab, dry lab, human practice, entrepreneurship, and stage achievement displays. [Wiki](https://2024.igem.wiki/scut-china-a) | [Official Page](https://teams.igem.org/5226)https://static.igem.org/peertube/streaming-playlists/hls/31673866-f4a7-48f0-8dc8-0d5d98485f0b/7fe68fe7-25aa-42fe-af85-6743e35a82d5-master.m3u8https://video.igem.org/videos/embed/76Q9jSu7YD2gJNJ8z7r9pe8270242024-10-11T04:06:39.049ZYES2024 PresentationsNOhttps://video.igem.org/w/wk3k83aoTaU4GKcz82epvXhttps://video.igem.org/lazy-static/thumbnails/b1f129a8-b0fe-4f02-ade6-2930efb40116.jpgNNU-CHINA: BioALA+: Advanced 5-ALA Synthesis for Sustainable Agriculture (2024) - Team Presentati...**Title:** BioALA+: Advanced 5-ALA Synthesis for Sustainable Agriculture **Description:** The supply of grain is the foundation of people's livelihood. However, with many agricultural fields in various regions suffering from drought, diseases, pests, and other attacks, many people still live in hunger. Using biopesticide to enhance crops' resistance to abiotic and biotic stresses, while promoting crop yield is an available solution. 5-aminolevulinic acid (5-ALA) is a sophisticated and sustainable biopesticide, especially when compared to the various highly toxic and non-degradable chemical pesticides currently in use. The exploration of the biological manufacturing of 5-ALA in recent years has driven our research. However, issues such as the stability of ALAS gene expression, the obsolescence of targets, and the low efficiency of screening for target strains still persist. This project addresses these three issues by utilizing CRISPR-associated transposon system, enzyme-constrained model, and droplet microfluidic high-throughput screening technologies to explore solutions. [Wiki](https://2024.igem.wiki/nnu-china) | [Official Page](https://teams.igem.org/5303)https://static.igem.org/peertube/streaming-playlists/hls/f59aba26-2a0f-4462-bf5a-05f2e826e63d/a93fb68b-3791-4f73-9f99-89f53e0198b9-master.m3u8https://video.igem.org/videos/embed/wk3k83aoTaU4GKcz82epvX8930502024-10-11T04:08:15.082ZYES2024 PresentationsNOhttps://video.igem.org/w/5pyLuzGzm6Hny3KVvvJvY1https://video.igem.org/lazy-static/thumbnails/cf13f6dd-a35a-4f37-928d-70f1006fa034.jpgNAU-CHINA: SAMUS: Self-healing Adhesive Materials for Underwater Soft-robot (2024) - Team Present...**Title:** SAMUS: Self-healing Adhesive Materials for Underwater Soft-robot **Description:** NAU-CHINA 2024’s project is SAMUS, Self-healing Adhesive Materials for Underwater Soft-robot. Considering the numerous challenges soft robots faced in the ocean exploration process, we developed a biomaterial with both self-healing and adhesive capabilities for soft robots. For the self-healing module, we used a RNA cyclase ribozyme mechanism to increase the repeated times of tandem repeat polypeptides with n repetitions (TRn) derived from squid ring teeth proteins, which increase the self-healing capability of our material. For the adhesive module, we connected mussel foot protein 5 (Mfp5) with TRn4 to create a new fusion protein that acts as a “double-sided adhesive”, enabling our self-healing material to adhere to the substrate of underwater soft-robots. This material autonomously repairs damage, aids underwater exploration and helps protect the marine environment. [Wiki](https://2024.igem.wiki/nau-china) | [Official Page](https://teams.igem.org/5398)https://static.igem.org/peertube/streaming-playlists/hls/23aedad4-61b8-4a9e-aeed-f5e2efc33f04/99270bd7-aba7-4f94-80cd-e075934430df-master.m3u8https://video.igem.org/videos/embed/5pyLuzGzm6Hny3KVvvJvY18900512024-10-11T04:08:30.466ZYES2024 PresentationsNOhttps://video.igem.org/w/iud6R3XgDUf9avjN9eHopThttps://video.igem.org/lazy-static/thumbnails/363a6e76-9552-476e-8721-1627c6afb9e5.jpgBNDS-China: MetaboMender: A Comprehensive Probiotic Platform to Treat Gut Dysbiosis (2024) - Team...**Title:** MetaboMender: A Comprehensive Probiotic Platform to Treat Gut Dysbiosis **Description:** The human gut microbiota contains trillions of microorganisms, and it influences the human health from various aspects. Gut dysbiosis is caused when the balance of gut microbiota is disrupted, leading to disease conditions. In China, gut dieases and dysbiosis are becoming more prevalent, meaning the need for treatment. MetaboMender is designated to detect, monitor, and regulate the concentration of specific gut metabolites through a food input in order to cure and prevent gut dysbiosis. We designed two programmable genetic systems for beneficial and harmful metabolites. Both system use deoxycholic acid as an indicator of food intake to trigger the subsequent responses. We focused on butyrate and indole-3-acetic acid (IAA) as the beneficial and harmful metabolites, respectively. When butyrate level is low, our platform will supplement butyrate by expressing butyrate-producing enzymes. On the other hand, when IAA level is too high, our platform will express IAA-degrading enzymes to reduce excessive IAA. [Wiki](https://2024.igem.wiki/bnds-china) | [Official Page](https://teams.igem.org/5127)https://static.igem.org/peertube/streaming-playlists/hls/8d9ba3e1-395d-4e40-9cc8-c3a31fd10139/4b9b1a16-0df3-4e39-8987-d7b498467f26-master.m3u8https://video.igem.org/videos/embed/iud6R3XgDUf9avjN9eHopT8490792024-10-11T04:18:56.491ZYES2024 PresentationsNOhttps://video.igem.org/w/dPJyJJT2mgesmBiDu6CX4Thttps://video.igem.org/lazy-static/thumbnails/6633ee4d-09c9-472e-abde-dd99042a9394.jpgUAlberta: ReneWool (2024) - Team Presentation [English]**Title:** ReneWool **Description:** The video showcases our comprehensive solution to the ongoing textile waste issue and highlights the efforts of our Wet Lab, Dry Lab, Software Practices team, and Human Practices team. It also gives a concise overview of ReneWool's inner workings and development journey. [Wiki](https://2024.igem.wiki/ualberta) | [Official Page](https://teams.igem.org/5427)https://static.igem.org/peertube/streaming-playlists/hls/67d7da35-00fc-48af-89fb-cadb9bad84cd/f331bd9e-3334-49c3-81c8-570006d570d5-master.m3u8https://video.igem.org/videos/embed/dPJyJJT2mgesmBiDu6CX4T9000862024-10-11T04:14:52.095ZYES2024 PresentationsNOhttps://video.igem.org/w/tgmT6i4Eh8juoBbAcpVVUyhttps://video.igem.org/lazy-static/thumbnails/dd6ddd6e-164b-4812-81d2-9b078098a972.jpgCNPEM-BRAZIL: B.A.R.B.I.E - Bioengineered Aquatic pollutants Removal and Bio-sen... (2024) - Team...**Title:** B.A.R.B.I.E - Bioengineered Aquatic pollutants Removal and Bio-sensing through Integrated Eco-filter **Description:** The B.A.R.B.I.E project (Bioengineered Aquatic pollutants Removal and Bio-sensing through Integrated Eco-filter) addresses the growing threat of micro and nanoplastic (MNP) pollution in drinking water. Improper disposal of plastic waste leads to environmental degradation, as larger plastics break down into microscopic particles that infiltrate freshwater ecosystems. These pollutants bypass conventional filtration systems and enter our homes, posing serious risks to human health. B.A.R.B.I.E 4.0 offers an innovative solution to this issue by integrating a bio-inspired water filter with an impedance-based biosensor to detect and remove MNPs more effectively. The Eco- filter features a spider silk spidroin matrix combined with AI-designed plastic-binding proteins (PBPs) to enhance MNPs capture. Additionally, the project provides a molecular toolbox for designing pollutant-specific proteins using bioinformatics tools. By leveraging advanced technologies, bioengineering and social responsibility B.A.R.B.I.E aims to provide a flexible, sustainable and scalable solution to water pollution, helping protect human health and addressing environmental concerns. [Wiki](https://2024.igem.wiki/cnpem-brazil) | [Official Page](https://teams.igem.org/5396)https://static.igem.org/peertube/streaming-playlists/hls/dccbc4c7-ac42-4751-8481-931fc5b3d574/8bc25691-4e0c-447f-adaa-2ad660caea17-master.m3u8https://video.igem.org/videos/embed/tgmT6i4Eh8juoBbAcpVVUy87101082024-10-11T04:14:31.368ZYES2024 PresentationsNOhttps://video.igem.org/w/h8g2ETpUGv5CUN3JGfwVsYhttps://video.igem.org/lazy-static/thumbnails/48dc9c99-87b1-4aaa-8bbf-001fc9b3d351.jpgRochester: CyanoVolt (2024) - Team Presentation [English]**Title:** CyanoVolt **Description:** Our project combines clean energy and sustainability to contribute to stopping the climate crisis through the creation of a CO2-sequestering bio-photovoltaic cell powered by modified cyanobacteria. Electrons released while photosynthesis occurs in the cyanobacteria can be picked up by the photovoltaic cell and redirected to create electrical output, thus giving us a source of green energy. We will modify our strain of cyanobacteria by targeting a carbon-fixing enzymes to increase the effectiveness and efficiency in CO2 sequestration of our chassis. Alongside electricity production and CO2 sequestration, we will engineer our cyanobacteria to synthesize a high- value product, such as ethanol. The cyanobacteria will be screenprinted onto an inexpensive paper substrate, maximizing the total surface area of the cyanobacterial culture and effectively producing a cheap and sustainable “solar panel” without the need for expensive materials. [Wiki](https://2024.igem.wiki/rochester) | [Official Page](https://teams.igem.org/5052)https://static.igem.org/peertube/streaming-playlists/hls/8295afd0-a65e-4dc4-959e-5767294a38a0/4defaafe-56d9-435a-a10f-ad7c82b405b7-master.m3u8https://video.igem.org/videos/embed/h8g2ETpUGv5CUN3JGfwVsY8950652024-10-11T04:20:45.411ZYES2024 PresentationsNOhttps://video.igem.org/w/bfo3gKGuKAfxw8UfsXPppFhttps://video.igem.org/lazy-static/thumbnails/12d2b5df-4b7b-4c47-9576-c696b0fe133d.jpgSCUT-China-B: Tumor-Specific Gene Nanoparticles (2024) - Team Presentation [English]**Title:** Tumor-Specific Gene Nanoparticles **Description:** Two signals are required to induce T cell activation and proliferation: binding of CD3 to the TCR to form the TCR-CD3 complex to deliver the first activation signal and the second signal generated by synergistic co-stimulatory molecules, mainly CD86. Team from South China University of Technology designed a tumor-specific gene nanomedicine such that it expresses only anti-CD3 scFv (αCD3, CD3 activator) and anti-CD86 scfv (αCD86, CD86 activator) on the surface of tumor cells while mobilizing the tumor cells to secrete IL-2, a cytokine for T-cell proliferation and survival, in order to activate the T-cells and to enhance the immunotherapy effect. This study provides a strategy to maximize immunotherapy efficacy independent of tumor heterogeneity. [Wiki](https://2024.igem.wiki/scut-china-b) | [Official Page](https://teams.igem.org/5368)https://static.igem.org/peertube/streaming-playlists/hls/52fd61a9-dff5-4f19-bb20-ff00b7863a21/3cf32416-38c3-4704-b632-78d7f7300bd2-master.m3u8https://video.igem.org/videos/embed/bfo3gKGuKAfxw8UfsXPppF8990252024-10-11T04:19:06.469ZYES2024 PresentationsNOhttps://video.igem.org/w/fsQ2t7A1BquKCzjPv8pJ3Rhttps://video.igem.org/lazy-static/thumbnails/5c60bb20-89f2-488e-8557-98165bd4b3aa.jpgNJTECH-CHINA-A: Tagatose--Letting sweet not be a burden (2024) - Team Presentation [English]**Title:** Tagatose--Letting sweet not be a burden **Description:** Tagatose is a natural ketose with sweetness close to sucrose but low in calories, making it suitable for individuals with diabetes and those pursuing a healthy lifestyle. As an excellent alternative to sucrose, it has the potential for widespread use in the food industry, offering healthy and delicious options to support dietary needs. However, tagatose is not widely utilized due to its cost. Our goal is to enhance tagatose yield through gene mining, soluble expression, and directed evolution, thereby introducing a new sugar substitute option. [Wiki](https://2024.igem.wiki/njtech-china-a) | [Official Page](https://teams.igem.org/5366)https://static.igem.org/peertube/streaming-playlists/hls/751ee03b-33cc-49d3-845b-77fcba59a875/c224e1fe-f907-4194-8943-3c9de9325a08-master.m3u8https://video.igem.org/videos/embed/fsQ2t7A1BquKCzjPv8pJ3R9000532024-10-11T04:28:06.111ZYES2024 PresentationsNOhttps://video.igem.org/w/tfe3SQ68cEMvYfRiopg5SWhttps://video.igem.org/lazy-static/thumbnails/517c629a-cb35-4882-aacb-3f0a448a3bfa.jpgANU: CORA: Fighting coral bleaching with synthetic biology (2024) - Team Presentation [English]**Title:** CORA: Fighting coral bleaching with synthetic biology **Description:** Final presentation video of ANU CORA, the 2024 ANU iGEM team. We present our project where we worked on creating a synthetic biology solution to ROS induced coral bleaching. [Wiki](https://2024.igem.wiki/anu) | [Official Page](https://teams.igem.org/5423)https://static.igem.org/peertube/streaming-playlists/hls/dca332dd-cb5f-4981-b04e-238f01a9d762/5b44332c-d6f2-45b2-b318-3fc9923d7cad-master.m3u8https://video.igem.org/videos/embed/tfe3SQ68cEMvYfRiopg5SW9000552024-10-11T04:26:18.490ZYES2024 PresentationsNOhttps://video.igem.org/w/wtjKSkkgaGr6A2FrRrdY6thttps://video.igem.org/lazy-static/thumbnails/a4783402-2782-4493-95da-c2dd9009e6f0.jpgCUHK-HongKong-SBS: CUHK SBS IOSA (2024) - Team Presentation [English]**Title:** CUHK SBS IOSA **Description:** In our presentation video, we explain how we developed a weight-loss yogurt using modified probiotics and RNAi therapy, as well as our outreach and human practice efforts Please enjoy. [Wiki](https://2024.igem.wiki/cuhk-hongkong-sbs) | [Official Page](https://teams.igem.org/5402)https://static.igem.org/peertube/streaming-playlists/hls/f6c2ccf3-da8e-4f1a-a652-5623d049cbed/4ac48bf8-247b-461e-aa73-90fbb855396f-master.m3u8https://video.igem.org/videos/embed/wtjKSkkgaGr6A2FrRrdY6t8040482024-10-11T04:22:29.729ZYES2024 PresentationsNOhttps://video.igem.org/w/bSDoaZ6A4UDSKu8CyEJaH4https://video.igem.org/lazy-static/thumbnails/d4f65231-1ee6-4395-abda-8c49c008a8f7.jpgKyoto: ShowgNs (2024) - Team Presentation [English]**Title:** ShowgNs **Description:** The nitrogen issue is one of the most critical problems these days. Excess nitrogen introduced into the environment by human activities causes eutrophication, negatively impacts aquatic ecosystems, and contributes to climate change in the form of the greenhouse gas, dinitrogen monoxide (N2O). The main source of this nitrogen influx is nitrogen fertilizers used in agricultural fields. To solve the nitrogen issue while maintaining productivity through fertilizers, in this project, we worked on developing a cell-free nitrogen biosensor for optimal fertilization management. By combining a cell-free biosensor with hardware for sampling, we aimed to accurately measure the concentration of ammonium (NH4+) and nitrate (NO3-) in the soil. Additionally, we have developed a platform that can be applied to the development of other biosensors. [Wiki](https://2024.igem.wiki/kyoto) | [Official Page](https://teams.igem.org/5411)https://static.igem.org/peertube/streaming-playlists/hls/580d9cdd-04a0-446f-b5f7-8388c75d0301/59aa4f27-7bc6-4dc9-a3f6-7888013ad88e-master.m3u8https://video.igem.org/videos/embed/bSDoaZ6A4UDSKu8CyEJaH490001882024-10-11T07:16:13.325ZYES2024 PresentationsNOhttps://video.igem.org/w/2D9BmY1t8ZWPV3uhv2C6BJhttps://video.igem.org/lazy-static/thumbnails/fcd760ca-eca8-49b1-8f03-75ffae89d94a.jpgSorbonne-U-Paris: Morpheus - Turning Plastic Waste into Vanilla (2024) - Team Presentation [English]**Title:** Morpheus - Turning Plastic Waste into Vanilla **Description:** The Morpheus project focuses on transforming PET microplastics found in water into vanillic acid (VA) using the green algae Chlamydomonas reinhardtii. The project utilizes engineered fusion proteins, specifically PETase-MHETase, to break down PET (polyethylene terephthalate) into its monomers: MHET, TPA, and PCA. These intermediate products are then converted into VA, which has potential commercial and environmental value. Morpheus emphasizes sustainable water bioremediation, aligning with the circular economy and the UNs Sustainable Development Goals (SDGs). Its goal is to address plastic pollution through innovative biotechnological solutions. [Wiki](https://2024.igem.wiki/sorbonne-u-paris) | [Official Page](https://teams.igem.org/5222)https://static.igem.org/peertube/streaming-playlists/hls/0d48f6cc-417b-4f3e-bb70-a3d9383d019c/7f8e0347-1593-4f1d-a4b6-56459a0cf930-master.m3u8https://video.igem.org/videos/embed/2D9BmY1t8ZWPV3uhv2C6BJ65301602024-10-11T15:08:47.553ZYES2024 PresentationsNOhttps://video.igem.org/w/825fNQxAzPQtq9TTjifE2thttps://video.igem.org/lazy-static/thumbnails/7e732de3-1249-43ba-b083-a26e5b758480.jpgSYPHU-China: Skin Angel:Data-Driven engineered L.reuteri to cure Seborrheic derm... (2024) - Team...**Title:** Skin Angel:Data-Driven engineered L.reuteri to cure Seborrheic dermatitis **Description:** Seborrheic dermatitis (SD) is a chronic, recurrent skin disease influenced by factors such as genetics, immune status, and skin microbiota. Our project introduces a novel treatment using engineered Lactobacillus reuteri expressing the MFP5 adhesive protein from mussels, enhancing adhesion to the skin. This modified L. reuteri promotes antimicrobial peptide (AMP) expression to target and kill Malassezia, a key contributor to SD. Using deep learning, we design AMPs and optimize the promoter and operon to sense extracellular fatty acid concentrations, enabling precise gene expression. Once Malassezias substrate is depleted, it dies, achieving biological control of SD. [Wiki](https://2024.igem.wiki/syphu-china) | [Official Page](https://teams.igem.org/5270)https://static.igem.org/peertube/streaming-playlists/hls/38d65639-62fb-46be-afc7-07ac79b24f6d/cfe2c8ca-7568-458d-97b6-c047c7eea05e-master.m3u8https://video.igem.org/videos/embed/825fNQxAzPQtq9TTjifE2t89201252024-10-14T19:59:29.205ZYES2024 PresentationsNOhttps://video.igem.org/w/e2oWRU6BMuagLwWaXCeCLVhttps://video.igem.org/lazy-static/thumbnails/68fa9534-5eb6-4c1f-9ad0-5b77cf5f6538.jpgNemanjas Test Team: Test (2024) - Project Promotion [English]**Title:** Test **Description:** Test description [Official Page](https://teams.igem.org/5036)https://static.igem.org/peertube/streaming-playlists/hls/6978afef-2a7c-4262-8537-efc6cddfbc25/53e247f4-3a2f-45de-9b8c-a5cc162c2737-master.m3u8https://video.igem.org/videos/embed/e2oWRU6BMuagLwWaXCeCLV117042024-10-20T14:54:04.391ZYEStesting_channelNOhttps://video.igem.org/w/s1WDU2b6ecHJ46K5WxV9tChttps://video.igem.org/lazy-static/thumbnails/545e886e-d4a3-461f-9158-b7fb2733a3a2.jpgHP Meter hackathon demonstrastionIn this video, the Human Practices Maturity Toolkit is presented, a project I developed during the iGEM hackathon. This toolkit features a web interface designed to help iGEM teams evaluate their Human Practices maturity using AI. https://static.igem.org/peertube/streaming-playlists/hls/d2af4958-c91b-46e0-8c12-b35fb292adda/c73ae0d9-efdb-4052-bdc3-171f50a8ede5-master.m3u8https://video.igem.org/videos/embed/s1WDU2b6ecHJ46K5WxV9tC950202024-10-25T09:29:38.394ZYESMain ingvaras channelNOhttps://video.igem.org/w/19BmfidKwtgXhdpw55tcpihttps://video.igem.org/lazy-static/thumbnails/2f29b502-3ee0-472d-bb2b-30e639556903.jpgHEXON - Fine Tuning and BLAST for pathogen identificationHEXON - Fine Tuning and BLAST for pathogen identificationhttps://static.igem.org/peertube/streaming-playlists/hls/0133bc1c-0dba-4f8d-8e79-6e007ce23fcb/b216cef6-3c6a-4a32-a24a-12ef59cdec3e-master.m3u8https://video.igem.org/videos/embed/19BmfidKwtgXhdpw55tcpi115072024-10-25T09:51:57.053ZYESMain konjacq channelNOhttps://video.igem.org/w/4J8fjRKQGfVhMcHN4shKxphttps://video.igem.org/lazy-static/thumbnails/53c4f02d-6615-4301-a10b-082361381fb7.jpgFlagSec Bioterrorism prevention - Hackathon 2024 Team ClippyFlagSec Bioterrorism prevention - Hackathon 2024 Team Clippyhttps://static.igem.org/peertube/streaming-playlists/hls/1e2d1ed4-b5f4-40da-a69d-4d86e7638629/ca993cc9-73e4-44f9-bb40-8c79fc96af37-master.m3u8https://video.igem.org/videos/embed/4J8fjRKQGfVhMcHN4shKxp1190222024-10-25T09:54:45.560ZYESMain lukaas33 channelNOhttps://video.igem.org/w/kxw8RZ3DTKTGdCVb4yKgkahttps://video.igem.org/lazy-static/thumbnails/65e61005-6526-4e9d-89ac-dc2e70841486.jpgWayVuehackathonhttps://static.igem.org/peertube/streaming-playlists/hls/9e44435a-985d-4e95-9520-10854dada00b/3aaa66d6-6d9c-40d6-980f-c395856e6a7d-master.m3u8https://video.igem.org/videos/embed/kxw8RZ3DTKTGdCVb4yKgka800142024-10-25T10:01:38.512ZYESMain josh_kanter channelNOhttps://video.igem.org/w/4mJU1sGWD6vwFyBqntKwK1https://video.igem.org/lazy-static/thumbnails/5cf991c8-d696-4438-9bfc-f9680696fca0.jpgHackathon 2024 Demo Video GradeGeniusDemo for Human Practices Maturity Model Toolkit, designed and built by GradeGenius: Davin Höllman, Li Mengxi, and Luke Wiebe.https://static.igem.org/peertube/streaming-playlists/hls/1b30ba37-1f5b-443e-b31b-b07ee35c8afe/2dedc476-f693-46e2-8185-1ad6dc9685fb-master.m3u8https://video.igem.org/videos/embed/4mJU1sGWD6vwFyBqntKwK11290342024-10-25T10:16:37.881ZYESMain lukewiebe channelNOhttps://video.igem.org/w/dshHVyP4vsmDqjhUbAK8j9https://video.igem.org/lazy-static/thumbnails/54c7c418-97a0-480d-9956-5c84fdc58c18.jpgUZurich: Claudia Vaderna - Schweizer Allianz Gentechfrei (Swiss Alliance against Gene Technology)Watch our compelling interview with Claudia Vaderna, managing director of the 'Schweizer Allianz Gentechfrei,' an organization advocating for GMO-free agriculture. In this conversation, Claudia shares her views on biotechnology in farming, the concerns surrounding GMOs, and the movement to maintain GMO-free practices in Switzerland. If you're curious about the debate over biotechnology in agriculture and the push for sustainable alternatives, this interview offers important perspectives from a leading voice in the field.https://static.igem.org/peertube/streaming-playlists/hls/64d94ec8-4ae7-4139-a8f6-b8757fff7c30/800068ed-756b-4c07-aa33-c2b6d658e745-master.m3u8https://video.igem.org/videos/embed/dshHVyP4vsmDqjhUbAK8j912920192024-11-12T20:54:53.533ZYESA Glimpse into the Human Practices WorkflowNOhttps://video.igem.org/w/aJYb3dfcc1MXTjV2LSgRDchttps://video.igem.org/lazy-static/thumbnails/e6732f5d-1ec6-4d7d-a9d6-7f94f48f1d41.jpgiGEM Community - GirlsLab - Motherhood in STEMOn November 16th, 2024, we hosted our fourth Speaker Event with Dr. Paulina Ramos, Molecular & Cell Biology Researcher at Tecnolólogico de Monterrey! 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Dengue Beeters | iGEM 2024 (Grand Prize Winner, High School)GEMS-Taiwan - Dengue Beeters | iGEM 2024 (Grand Prize Winner, High School)https://static.igem.org/peertube/streaming-playlists/hls/a112bbee-1fd5-4a5c-be52-2a94972d4c13/59d0b84a-c677-40d3-8eb4-6add23a60e73-master.m3u8https://video.igem.org/videos/embed/kTBYg3dn6zaG3iW5EcyE6H950021282024-11-22T14:30:53.688ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/wETvFZBTb5jbQvVRUKf6rJhttps://video.igem.org/lazy-static/thumbnails/badc4b44-3fab-4ce6-ae9d-e0615c3e3aca.jpgGreatBay-SCIE Dienamite | iGEM 2024 (1st Runner Up, High School)GreatBay-SCIE Dienamite | iGEM 2024 (1st Runner Up, High School)https://static.igem.org/peertube/streaming-playlists/hls/f8602b1b-8a5a-4c9f-b3f8-b3fa6d549fa8/2112e7d1-17f2-43e1-8864-10f410e5acc5-master.m3u8https://video.igem.org/videos/embed/wETvFZBTb5jbQvVRUKf6rJ95205672024-11-22T14:55:40.447ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/uDwV4zH52H4RmZsXLa6vP1https://video.igem.org/lazy-static/thumbnails/513b5b18-fa33-4c4e-a9fc-8c6aed9b9b48.jpgAachen - OncoBiotica | iGEM 2024 (1st Runner Up, Overgraduate)Aachen - OncoBiotica | iGEM 2024 (1st Runner Up, Overgraduate)https://static.igem.org/peertube/streaming-playlists/hls/e7fd7434-9a4c-44bd-9214-1c7086642d52/894ec096-57eb-411d-b0ef-5af3e7bd7e20-master.m3u8https://video.igem.org/videos/embed/uDwV4zH52H4RmZsXLa6vP191204222024-11-22T15:25:50.982ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/bPAY1i8UJRY2uNKbgKoeHwhttps://video.igem.org/lazy-static/thumbnails/c90d7b47-4542-4b6c-ae0e-9cb71bb70e66.jpgMarburg - Tarakate | iGEM 2024 (Grand Prize Winner, Overgrad)Marburg - Tarakate | iGEM 2024 (Grand Prize Winner, Overgrad)https://static.igem.org/peertube/streaming-playlists/hls/57a0e461-4c05-495f-ad8c-b09aec8605bc/ac5eb499-a797-49bb-9814-6bdd3b27fd38-master.m3u8https://video.igem.org/videos/embed/bPAY1i8UJRY2uNKbgKoeHw702010642024-11-22T15:22:34.822ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/qs8dr5FUbKSjohVEB6n2Cbhttps://video.igem.org/lazy-static/thumbnails/536150d8-5487-476a-a493-02695593a5b7.jpgHeidelberg - PICasSO | iGEM 2024 (Grand Prize Winner, Undergraduate)Heidelberg - PICasSO | iGEM 2024 (Grand Prize Winner, Undergraduate)https://static.igem.org/peertube/streaming-playlists/hls/c6011ca3-0131-4fd6-8fd7-231866cb9ece/c3645cbe-0aca-4176-bcfe-7b01f3fe2b03-master.m3u8https://video.igem.org/videos/embed/qs8dr5FUbKSjohVEB6n2Cb693022102024-11-22T15:34:16.936ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/mk6ouEtQ9zVUuNfSWfFR8Ghttps://video.igem.org/lazy-static/thumbnails/0426a6cf-3aac-4d19-a9b3-81adfc22c808.jpgJU-Krakow - PrymDetect | iGEM 2024 (1st Runner Up, Undergraduate)JU-Krakow - PrymDetect | iGEM 2024 (1st Runner Up, Undergraduate)https://static.igem.org/peertube/streaming-playlists/hls/a4a139a6-9d98-49b1-93eb-a84a1338a1da/82b22ff8-b706-4980-9657-870d54e15261-master.m3u8https://video.igem.org/videos/embed/mk6ouEtQ9zVUuNfSWfFR8G83704482024-11-22T15:41:14.114ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/itNSp8pMycdAT6wNj3EZfFhttps://video.igem.org/lazy-static/thumbnails/11ec3d08-2ac8-4d48-8142-242970443e72.jpgSydney-Australia REBolutionising Drug Delivery | iGEM 2024 (2nd Runner Up, Undergraduate)Sydney-Australia REBolutionising Drug Delivery | iGEM 2024 (2nd Runner Up, Undergraduate)https://static.igem.org/peertube/streaming-playlists/hls/8d8d52b1-a010-417d-b182-45ebd42a9727/d39f6133-dd4a-4893-bef0-bc0dcec6b443-master.m3u8https://video.igem.org/videos/embed/itNSp8pMycdAT6wNj3EZfF96504262024-11-22T16:04:28.278ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/wiEmb884SJABj39fT9dKoVhttps://video.igem.org/lazy-static/thumbnails/a124d2a6-0f5c-4a0c-8c48-9674fccbff2a.jpgBiocreators Open Talk #3 with Selenia Marinelli, Dana Molzhigit and Hana Cvelbar - iGEM Arts GalleryWe are inviting speakers from the biocreative community on topics such as bioart, biofuturism, biodesign, bioarchitecture, and other creative fields integrating biology and creativity. The third online session took place on Saturday, November 30th at 15:00 UTC, and was presented by: - Selenia Marinelli, a bio-architect, independent researcher, and material activist specializing in biofabrication and multispecies coexistence in architecture. - Dana Molzhigit, a biodesigner, researcher, and innovator. She works as a senior lecturer and researcher at SDU University. - Hana Cvelbaris an award-winning biotechnology scientist who graduated from University College London (UCL) currently working at the Centre of Excellence for Biosensors, Instrumentation and Process Control (COBIK). Learn more about the project: https://community.igem.org/projects/igem-arts-galleryhttps://static.igem.org/peertube/streaming-playlists/hls/f5696fc3-f3dc-463c-b4bb-0731c78828fd/2ab56c8b-141e-4a26-b7ec-705621ee2958-master.m3u8https://video.igem.org/videos/embed/wiEmb884SJABj39fT9dKoV69040542024-12-03T16:56:42.637ZYESiGEM CommunityNOhttps://video.igem.org/w/28PhkpNhvCUQjCxv4Dqemahttps://video.igem.org/lazy-static/thumbnails/812c4fdc-dd5f-4a5c-9381-df97738bb81b.jpgFormosa101: Judging Session (2024)[Wiki](https://2024.igem.wiki/formosa101)https://static.igem.org/peertube/streaming-playlists/hls/09307bbf-843c-4a47-a00f-5fe46e653a15/81c13188-09c9-4f36-b8f3-eaf1fdf9ea78-master.m3u8https://video.igem.org/videos/embed/28PhkpNhvCUQjCxv4Dqema1332092024-12-03T19:40:02.501ZYES2024 Judging SessionsNOhttps://video.igem.org/w/s7K11ZZEHvsc3A3qCt9Nrxhttps://video.igem.org/lazy-static/thumbnails/a1ca71a3-2ad2-47fd-a5e8-50a024d501f5.jpgUlink-SZ: Judging Session (2024)[Wiki](https://2024.igem.wiki/ulink-sz)https://static.igem.org/peertube/streaming-playlists/hls/d37e9151-cd4a-46c6-bbb5-09423d21cbb1/e912e2de-8459-4cc4-8b6f-bd0ccbc948ba-master.m3u8https://video.igem.org/videos/embed/s7K11ZZEHvsc3A3qCt9Nrx14630182024-12-03T19:03:16.398ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vRnX1LLQUBNAbbVXdrh5Cthttps://video.igem.org/lazy-static/thumbnails/9d9360ff-b715-4500-96c8-d99a6059d24e.jpgHangzhou-BioX: Judging Session (2024)[Wiki](https://2024.igem.wiki/hangzhou-biox)https://static.igem.org/peertube/streaming-playlists/hls/f1bdfdfb-5bf9-4f50-93a5-55d8130283a3/1f9ccde7-0080-423b-abf4-27702646c98f-master.m3u8https://video.igem.org/videos/embed/vRnX1LLQUBNAbbVXdrh5Ct1531082024-12-03T20:59:55.961ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ogNJuCvyAc7yZVy8njkpX5https://video.igem.org/lazy-static/thumbnails/cb1b4de5-ddd0-4d58-9e66-1016f4091ddb.jpgWFL-HangzhouBay: Judging Session (2024)[Wiki](https://2024.igem.wiki/wfl-hangzhoubay)https://static.igem.org/peertube/streaming-playlists/hls/b45e01d0-7f55-461a-aa69-8a3ce2bd17ae/c28002fe-a486-4ff5-9f78-591f0e1b352d-master.m3u8https://video.igem.org/videos/embed/ogNJuCvyAc7yZVy8njkpX51268042024-12-03T20:27:23.385ZYES2024 Judging SessionsNOhttps://video.igem.org/w/uzqzonZMhK5cm9Mht5k3Fnhttps://video.igem.org/lazy-static/thumbnails/c3319bcd-9d71-4d0b-9a63-21a5de93d16f.jpgLCG-Global: Judging Session (2024)[Wiki](https://2024.igem.wiki/lcg-global)https://static.igem.org/peertube/streaming-playlists/hls/e76a9278-9565-401b-b393-b02be3a418cb/7a74e122-56a3-496e-97af-b29e9f45abee-master.m3u8https://video.igem.org/videos/embed/uzqzonZMhK5cm9Mht5k3Fn1361072024-12-03T20:31:56.635ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aHRoee9H6JdRqTEbZYyziVhttps://video.igem.org/lazy-static/thumbnails/ef364bc6-0358-4024-b052-47f356997896.jpgSHSD: Judging Session (2024)[Wiki](https://2024.igem.wiki/shsd)https://static.igem.org/peertube/streaming-playlists/hls/4eba2d0f-448b-4f68-a5c0-a5ca9fda5b53/18fa774b-7346-4ad4-83b0-d06dc8dcb129-master.m3u8https://video.igem.org/videos/embed/aHRoee9H6JdRqTEbZYyziV1474022024-12-03T21:40:04.464ZYES2024 Judging SessionsNOhttps://video.igem.org/w/sG8kmAT39FMPNpfFcDhBRehttps://video.igem.org/lazy-static/thumbnails/7a5480d3-8d4c-48d1-b66f-e953eedc578e.jpgDelNorte-SD: Judging Session (2024)[Wiki](https://2024.igem.wiki/delnorte-sd)https://static.igem.org/peertube/streaming-playlists/hls/d827e022-07a5-4f60-ad0e-eeb6d8cce883/f5d665ac-62f3-4b60-a14e-703eef3c0a35-master.m3u8https://video.igem.org/videos/embed/sG8kmAT39FMPNpfFcDhBRe14610372024-12-03T20:50:28.278ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mbfeRCrbC7GiyBTskGGCmThttps://video.igem.org/lazy-static/thumbnails/ca7c1748-22c5-4398-858a-514899d7f430.jpgNanjing-BioX: Judging Session (2024)[Wiki](https://2024.igem.wiki/nanjing-biox)https://static.igem.org/peertube/streaming-playlists/hls/a364fc65-c5e6-4d15-b275-b69d7a721a6b/a859c104-6335-4a69-80bd-d6042817911e-master.m3u8https://video.igem.org/videos/embed/mbfeRCrbC7GiyBTskGGCmT1497012024-12-03T20:19:55.026ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3y54CWsvNc4V23mWXS8GLBhttps://video.igem.org/lazy-static/thumbnails/8515518a-3439-4610-bded-0ace51098e5a.jpgSMS-Shenzhen: Judging Session (2024)[Wiki](https://2024.igem.wiki/sms-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/14ac94e9-af82-479b-8eac-774342577cd3/d5ff57a7-05a7-4b05-aeda-1ad85f472c66-master.m3u8https://video.igem.org/videos/embed/3y54CWsvNc4V23mWXS8GLB15530172024-12-03T19:34:03.661ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vETYbgf8KNWK618z6h9iMbhttps://video.igem.org/lazy-static/thumbnails/6e3e510d-86ec-4c4f-ac31-40e27c5af97b.jpgSquirrel-Guangzhou: Judging Session (2024)[Wiki](https://2024.igem.wiki/squirrel-guangzhou)https://static.igem.org/peertube/streaming-playlists/hls/f0474fa8-aef7-4052-b094-ca993dd50dc0/4a325770-de45-46ad-8912-eaf341a9a2fd-master.m3u8https://video.igem.org/videos/embed/vETYbgf8KNWK618z6h9iMb1219012024-12-03T19:40:48.564ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jw2CAkKwqKASYxdVqGpeXKhttps://video.igem.org/lazy-static/thumbnails/dee7cf2c-c7f5-4f2b-8f68-94f3f768c5f1.jpgHongKong-JSS: Judging Session (2024)[Wiki](https://2024.igem.wiki/hongkong-jss)https://static.igem.org/peertube/streaming-playlists/hls/95f5d065-ff0e-4b0c-821d-4d666f4d62cd/55e70ebf-e1cd-445e-965f-a2595975d7e2-master.m3u8https://video.igem.org/videos/embed/jw2CAkKwqKASYxdVqGpeXK17080702024-12-03T19:45:26.574ZYES2024 Judging SessionsNOhttps://video.igem.org/w/imMXSWG2MdxXab7nPTi1ZPhttps://video.igem.org/lazy-static/thumbnails/ea76dde0-51d5-40bd-a685-ef324396e67c.jpgHangzhou-MedX: Judging Session (2024)[Wiki](https://2024.igem.wiki/hangzhou-medx)https://static.igem.org/peertube/streaming-playlists/hls/8c928eff-538f-4a2a-9e17-37fdb36be691/6da6024e-909c-4590-a458-ceed481299c1-master.m3u8https://video.igem.org/videos/embed/imMXSWG2MdxXab7nPTi1ZP1517012024-12-03T20:31:03.706ZYES2024 Judging SessionsNOhttps://video.igem.org/w/m9PWaQ266CRgCeCqU3vC6Bhttps://video.igem.org/lazy-static/thumbnails/3626a9b7-2288-415a-90a5-f2c7ac356ee4.jpgWHHS-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/whhs-china)https://static.igem.org/peertube/streaming-playlists/hls/a3324382-7b4f-46d2-8082-506f5026b87d/c7c38fbe-862a-4495-a84b-360f7bf02318-master.m3u8https://video.igem.org/videos/embed/m9PWaQ266CRgCeCqU3vC6B1794032024-12-03T20:36:46.997ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5HcmHip7GMSwBGKbdyMvmthttps://video.igem.org/lazy-static/thumbnails/36d4720e-5947-4829-bd18-974e0d44068a.jpgInstitut-Le-Rosey: Judging Session (2024)[Wiki](https://2024.igem.wiki/institut-le-rosey)https://static.igem.org/peertube/streaming-playlists/hls/26250c5b-b558-451d-ae1b-f7585a97703f/24825201-647e-4f1b-9623-a34cbc475b17-master.m3u8https://video.igem.org/videos/embed/5HcmHip7GMSwBGKbdyMvmt1315062024-12-03T20:22:38.544ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7FGL2JqSos7bAyC6pXxcpfhttps://video.igem.org/lazy-static/thumbnails/6d5b1683-70e3-4a88-89e4-777c3aac43fb.jpgRDFZ-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/rdfz-china)https://static.igem.org/peertube/streaming-playlists/hls/3621f52b-cd3c-489a-abc9-b8cfe72625b8/f63daf98-fece-4593-a72a-76aebb300456-master.m3u8https://video.igem.org/videos/embed/7FGL2JqSos7bAyC6pXxcpf14730412024-12-03T21:02:50.702ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3xrRxq5FfJMJE11C269bMKhttps://video.igem.org/lazy-static/thumbnails/4bfcc7bd-0cb0-463c-8a40-82d16a60e9b3.jpgFHS-NB-ZJ-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/fhs-nb-zj-china)https://static.igem.org/peertube/streaming-playlists/hls/14964473-691e-47e4-9065-7e28380c82f5/e6fb2bd5-0c35-47b3-8481-adbc6ee79985-master.m3u8https://video.igem.org/videos/embed/3xrRxq5FfJMJE11C269bMK1620062024-12-03T20:35:30.363ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mEr9EUoXRUo9KXy2KGi6FGhttps://video.igem.org/lazy-static/thumbnails/6b44e78f-3b06-43d9-9f3c-0330b87ec851.jpgGreatBay-SCIE: Judging Session (2024)[Wiki](https://2024.igem.wiki/greatbay-scie)https://static.igem.org/peertube/streaming-playlists/hls/a754890f-220a-4e6c-a48d-1b5e89d4aefa/50b242c1-3eb7-49d9-9e8c-ae18904af7e4-master.m3u8https://video.igem.org/videos/embed/mEr9EUoXRUo9KXy2KGi6FG150101082024-12-03T20:56:16.509ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1jxCUjFbKS1TGtb8hDrVcNhttps://video.igem.org/lazy-static/thumbnails/b7e9deaf-cf79-49da-b597-e7ddb2589627.jpgEast-Coast-Biocrew: Judging Session (2024)[Wiki](https://2024.igem.wiki/east-coast-biocrew)https://static.igem.org/peertube/streaming-playlists/hls/0296e267-3946-4285-b0d1-348fe8ebf218/f6a4942a-633a-40f4-b592-196013ecb2b3-master.m3u8https://video.igem.org/videos/embed/1jxCUjFbKS1TGtb8hDrVcN1361022024-12-03T21:01:10.471ZYES2024 Judging SessionsNOhttps://video.igem.org/w/snHJu6rTuWJk6585FhRcVThttps://video.igem.org/lazy-static/thumbnails/34082dc9-b802-43d9-ae35-23336a045263.jpgWestview-SanDiego: Judging Session (2024)[Wiki](https://2024.igem.wiki/westview-sandiego)https://static.igem.org/peertube/streaming-playlists/hls/d595f161-3d9f-49da-bad6-c15cba437f49/d24da7c1-4ded-4cc8-9c8e-7d7c2952ee46-master.m3u8https://video.igem.org/videos/embed/snHJu6rTuWJk6585FhRcVT1408042024-12-03T21:03:07.529ZYES2024 Judging SessionsNOhttps://video.igem.org/w/m7V3hmr5C1ALv5S1AbBsYAhttps://video.igem.org/lazy-static/thumbnails/5ef0fc0c-7483-4466-9818-fe47afe080dc.jpgJIASHU-SouthChina: Judging Session (2024)[Wiki](https://2024.igem.wiki/jiashu-southchina)https://static.igem.org/peertube/streaming-playlists/hls/a2edec27-6f5e-4d11-b6d3-08fdcdb89ad2/037a2687-82be-48d6-a034-980a83796fa5-master.m3u8https://video.igem.org/videos/embed/m7V3hmr5C1ALv5S1AbBsYA1488062024-12-03T21:01:53.215ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jLKd1fszVXnFWt2cFSrqqHhttps://video.igem.org/lazy-static/thumbnails/29dec1b8-b713-48e9-9e8d-59579c3a0264.jpgBJWZ-3-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/bjwz-3-china)https://static.igem.org/peertube/streaming-playlists/hls/9803d958-2a57-43f3-83d2-ad7fdf97c1a1/0426fd90-0be1-41e4-9267-5ea4f9649a70-master.m3u8https://video.igem.org/videos/embed/jLKd1fszVXnFWt2cFSrqqH1522042024-12-03T20:54:29.455ZYES2024 Judging SessionsNOhttps://video.igem.org/w/myroijE8uPbnKZApc9sUnwhttps://video.igem.org/lazy-static/thumbnails/7360fce8-504c-4625-9075-7d460e44897d.jpgKorea-HS: Judging Session (2024)[Wiki](https://2024.igem.wiki/korea-hs)https://static.igem.org/peertube/streaming-playlists/hls/a67e37b2-9621-42ca-92a9-08919eff6e60/e8fe80b8-a316-4782-b410-f6632f5fb638-master.m3u8https://video.igem.org/videos/embed/myroijE8uPbnKZApc9sUnw15050252024-12-03T21:00:54.677ZYES2024 Judging SessionsNOhttps://video.igem.org/w/h2iuh5vPeszSQrikJStTowhttps://video.igem.org/lazy-static/thumbnails/3685093c-bbe2-4d54-9549-03db6d9cb5de.jpgMingdao: Judging Session (2024)[Wiki](https://2024.igem.wiki/mingdao)https://static.igem.org/peertube/streaming-playlists/hls/81c0bd49-d854-4291-a962-69cef53d911e/e12901f7-7e1d-48ea-9691-811216c4d6d6-master.m3u8https://video.igem.org/videos/embed/h2iuh5vPeszSQrikJStTow1652022024-12-03T21:07:17.532ZYES2024 Judging SessionsNOhttps://video.igem.org/w/twZsR9gXPxi3nHoJN4ScnFhttps://video.igem.org/lazy-static/thumbnails/e36d73b3-7556-495a-b9e7-b49611818fa6.jpgBASIS-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/basis-china)https://static.igem.org/peertube/streaming-playlists/hls/defa783c-f90d-48f2-bec1-0ef9f80553b5/7250d85d-c7d3-402f-98f3-b88efe11e12e-master.m3u8https://video.igem.org/videos/embed/twZsR9gXPxi3nHoJN4ScnF15920302024-12-03T21:20:10.544ZYES2024 Judging SessionsNOhttps://video.igem.org/w/eVhiDJ8yUVmrvPWPGYgyf2https://video.igem.org/lazy-static/thumbnails/2ada360e-d56e-440a-aa82-3ba8c48c1e0d.jpgLambert-GA: Judging Session (2024)[Wiki](https://2024.igem.wiki/lambert-ga)https://static.igem.org/peertube/streaming-playlists/hls/70b74531-434d-4771-82ba-662632215e45/bbc6fa71-9f2c-4c40-819d-63e1a8dabb22-master.m3u8https://video.igem.org/videos/embed/eVhiDJ8yUVmrvPWPGYgyf212230372024-12-03T21:05:39.202ZYES2024 Judging SessionsNOhttps://video.igem.org/w/rp9NeMjmXegrHCCgo1u1tmhttps://video.igem.org/lazy-static/thumbnails/e5e534e9-0c2e-4f64-83b6-c4f1d517a66b.jpgSFLS-Hangzhou: Judging Session (2024)[Wiki](https://2024.igem.wiki/sfls-hangzhou)https://static.igem.org/peertube/streaming-playlists/hls/cdaffea3-2609-4cff-84e4-e4e2123cf012/a2963313-ec43-4820-9e3c-8e5584e1fb1c-master.m3u8https://video.igem.org/videos/embed/rp9NeMjmXegrHCCgo1u1tm1584012024-12-03T21:06:26.450ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ttJpaWJSkLGsJnP2LTJxxchttps://video.igem.org/lazy-static/thumbnails/11c465d0-0d3f-43ef-bc08-2c51fbdd3533.jpgHS-Beta: Judging Session (2024)[Wiki](https://2024.igem.wiki/hs-beta)https://static.igem.org/peertube/streaming-playlists/hls/de85f48a-42f5-416f-af01-48111b770f6d/96d8d0b2-c222-4fff-8fd6-e6beb8c05318-master.m3u8https://video.igem.org/videos/embed/ttJpaWJSkLGsJnP2LTJxxc14730142024-12-03T21:29:54.786ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gpZ3XfFH6X1WebScSFYu9Xhttps://video.igem.org/lazy-static/thumbnails/cc59a0ca-8a16-4c25-a8cf-5d532dd318bb.jpgRainsACA-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/rainsaca-china)https://static.igem.org/peertube/streaming-playlists/hls/7cd25871-6f12-49a1-9d50-f6a990575727/e5abe71f-c818-422f-844c-ec2e4896dfa6-master.m3u8https://video.igem.org/videos/embed/gpZ3XfFH6X1WebScSFYu9X1532042024-12-03T22:25:57.842ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5CEpDjr11iNqNYez4LF4Lfhttps://video.igem.org/lazy-static/thumbnails/44308189-f995-44a4-8cb1-aec8f8c96d0b.jpgTaipei-KCISLK-V2: Judging Session (2024)[Wiki](https://2024.igem.wiki/taipei-kcislk-v2)https://static.igem.org/peertube/streaming-playlists/hls/2582fffa-3e8d-406f-b6e6-67f9e71b87ea/20a8f897-8a97-4c02-9328-3a57a591ef83-master.m3u8https://video.igem.org/videos/embed/5CEpDjr11iNqNYez4LF4Lf15000112024-12-03T21:39:27.370ZYES2024 Judging SessionsNOhttps://video.igem.org/w/b8EZ5fRfpov8sZQ2ixzhBXhttps://video.igem.org/lazy-static/thumbnails/0e5eb598-599d-42d1-8ade-1e926b4759dd.jpgBZK-SH: Judging Session (2024)[Wiki](https://2024.igem.wiki/bzk-sh)https://static.igem.org/peertube/streaming-playlists/hls/520d9e24-be66-4e20-8c5b-f7884ce8bd5d/aa700453-ad19-4e1f-b28a-eb62ba8c1927-master.m3u8https://video.igem.org/videos/embed/b8EZ5fRfpov8sZQ2ixzhBX1576022024-12-03T21:43:52.526ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ueqg54DXgjKm9EVbKwLCwzhttps://video.igem.org/lazy-static/thumbnails/5e948885-971f-40a6-9a75-3285531e57fb.jpgBeijing-HS: Judging Session (2024)[Wiki](https://2024.igem.wiki/beijing-hs)https://static.igem.org/peertube/streaming-playlists/hls/e49f808c-42a5-4d3a-8a9e-576c0bfef19d/f4c57fe8-bdc9-4367-b800-e1bebd21dbc1-master.m3u8https://video.igem.org/videos/embed/ueqg54DXgjKm9EVbKwLCwz1550072024-12-03T22:46:38.114ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fTUWfrSFo9yVtg61EP1Tdmhttps://video.igem.org/lazy-static/thumbnails/21516b45-1e8a-443b-a305-cbe9f0cfa587.jpgFDfzSH: Judging Session (2024)[Wiki](https://2024.igem.wiki/fdfzsh)https://static.igem.org/peertube/streaming-playlists/hls/789f7efe-22f7-400d-b21d-08c734dff228/9cd99f5c-d9f6-4385-a7c1-34c6201ae8eb-master.m3u8https://video.igem.org/videos/embed/fTUWfrSFo9yVtg61EP1Tdm1427022024-12-03T22:49:47.985ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3sZgLHNoksY6CvHFTpvcxPhttps://video.igem.org/lazy-static/thumbnails/68f20ef9-a6c0-4522-b1d6-90bdf2aa9d39.jpgGEC-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/gec-china)https://static.igem.org/peertube/streaming-playlists/hls/13f6e910-b8ab-4a58-b84c-75fe73d1a4d9/4bf129f1-9f56-4962-8c6f-f4e323373aac-master.m3u8https://video.igem.org/videos/embed/3sZgLHNoksY6CvHFTpvcxP1197002024-12-03T22:22:38.722ZYES2024 Judging SessionsNOhttps://video.igem.org/w/d9cvyAFtQuknQD8RnRtbXDhttps://video.igem.org/lazy-static/thumbnails/ef714cb2-d1f7-44a4-a6a0-3b9391a0188c.jpgFoshan-GreatBay: Judging Session (2024)[Wiki](https://2024.igem.wiki/foshan-greatbay)https://static.igem.org/peertube/streaming-playlists/hls/6252b509-a667-4b29-b8e6-a1d8d5e0052b/89b345e7-400c-4bb7-a8e5-4ac4a0d09757-master.m3u8https://video.igem.org/videos/embed/d9cvyAFtQuknQD8RnRtbXD1518072024-12-03T22:42:01.785ZYES2024 Judging SessionsNOhttps://video.igem.org/w/csJZ6wF5V7viGd5rvDBGqZhttps://video.igem.org/lazy-static/thumbnails/81727bdd-ffb3-467a-b237-a26a0b158696.jpgTJI-Seoul: Judging Session (2024)[Wiki](https://2024.igem.wiki/tji-seoul)https://static.igem.org/peertube/streaming-playlists/hls/5cd05a75-bade-4735-b7d5-45d756a3cb71/79d7a67c-4936-4f55-8782-8d80c0d8faeb-master.m3u8https://video.igem.org/videos/embed/csJZ6wF5V7viGd5rvDBGqZ15270192024-12-03T22:52:40.588ZYES2024 Judging SessionsNOhttps://video.igem.org/w/btZR2WApRWP5SnMXQ1pFB8https://video.igem.org/lazy-static/thumbnails/a7d1b25a-7e72-4be8-8d4a-4e50fc1aa773.jpgWUXI-DSAS: Judging Session (2024)[Wiki](https://2024.igem.wiki/wuxi-dsas)https://static.igem.org/peertube/streaming-playlists/hls/54e41dec-507b-4f42-95c3-630c420c7149/83618f6e-5a81-4971-bf82-c4c9bf2b95f4-master.m3u8https://video.igem.org/videos/embed/btZR2WApRWP5SnMXQ1pFB81575012024-12-03T22:55:54.419ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aSMVLrLACXLuPYfomdWbz4https://video.igem.org/lazy-static/thumbnails/75ea1576-5fa2-4790-8198-f0c4fbaddbde.jpgSquirrel-CHN-II: Judging Session (2024)[Wiki](https://2024.igem.wiki/squirrel-chn-ii)https://static.igem.org/peertube/streaming-playlists/hls/4ff9bd6e-2ada-4289-9d4c-4bafed631715/9a79bd0d-1a5e-4caf-8bbb-5ad5a7d29e96-master.m3u8https://video.igem.org/videos/embed/aSMVLrLACXLuPYfomdWbz41626012024-12-03T23:08:36.834ZYES2024 Judging SessionsNOhttps://video.igem.org/w/uts2rpWFDRpVXF7HasGNYvhttps://video.igem.org/lazy-static/thumbnails/8334a136-66be-4dcb-b3f2-709c2831c93e.jpgNANJING-NFLSUNITED: Judging Session (2024)[Wiki](null)https://static.igem.org/peertube/streaming-playlists/hls/e69500ab-b2ca-423e-9954-eab8ea4c4e05/ce82eca3-9c1f-4bbf-b52c-5599a0418d49-master.m3u8https://video.igem.org/videos/embed/uts2rpWFDRpVXF7HasGNYv1486012024-12-03T22:51:57.474ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2hnscnm6S7FPsKunCBrBBAhttps://video.igem.org/lazy-static/thumbnails/4d6ead6c-b196-41c5-b840-57928b0f7124.jpgShanghai-city: Judging Session (2024)[Wiki](https://2024.igem.wiki/shanghai-city)https://static.igem.org/peertube/streaming-playlists/hls/0a62424f-ef5d-4dd1-818c-78264e12c1d4/f2ede9ee-41c5-456d-961f-fbeb4e9eafac-master.m3u8https://video.igem.org/videos/embed/2hnscnm6S7FPsKunCBrBBA1420002024-12-03T21:28:25.931ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cXmE1wbetA33g53fYBdxFFhttps://video.igem.org/lazy-static/thumbnails/061f23c4-2e1e-4bcd-82f8-1c9dd4a48d40.jpgCity-of-London-UK: Judging Session (2024)[Wiki](https://2024.igem.wiki/city-of-london-uk)https://static.igem.org/peertube/streaming-playlists/hls/60cf2972-c476-4f47-82d5-3f008527ace9/19eaa363-961e-45ca-a16c-f7d5295f8f26-master.m3u8https://video.igem.org/videos/embed/cXmE1wbetA33g53fYBdxFF15620102024-12-03T23:05:34.371ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wQjeksWNPcP4imNBLNx2AAhttps://video.igem.org/lazy-static/thumbnails/6f1b2f4a-bc02-430d-90cd-91a646aa5c2a.jpgZhejiang-United: Judging Session (2024)[Wiki](https://2024.igem.wiki/zhejiang-united)https://static.igem.org/peertube/streaming-playlists/hls/f9b11868-d3f4-4039-af49-318d466b0ff2/9f9590cb-1481-484c-ab94-96826c3e6b9b-master.m3u8https://video.igem.org/videos/embed/wQjeksWNPcP4imNBLNx2AA1564012024-12-03T21:37:33.625ZYES2024 Judging SessionsNOhttps://video.igem.org/w/xmuvritQcrieJEsrwTTUnxhttps://video.igem.org/lazy-static/thumbnails/3cae37ab-1364-4432-b0cd-e36c2dff182c.jpgWegoTaipei: Judging Session (2024)[Wiki](https://2024.igem.wiki/wegotaipei)https://static.igem.org/peertube/streaming-playlists/hls/fde7be03-b10a-4288-9411-7a1731962c59/a621dee2-c220-4c30-8c6e-e0d36e8c843e-master.m3u8https://video.igem.org/videos/embed/xmuvritQcrieJEsrwTTUnx1484032024-12-03T21:44:27.644ZYES2024 Judging SessionsNOhttps://video.igem.org/w/oExgUxkg2VxV4SL4HQarvBhttps://video.igem.org/lazy-static/thumbnails/16d55b3d-a3a3-4a87-827a-e5873331d5e2.jpgGrand-Tokyo: Judging Session (2024)[Wiki](https://2024.igem.wiki/grand-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/b78a9653-ae6d-4f7c-a121-7b3110afc101/721c1405-aea5-48bb-97c1-c4ab37619b84-master.m3u8https://video.igem.org/videos/embed/oExgUxkg2VxV4SL4HQarvB15910182024-12-03T21:55:31.102ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wYx661TYZuEKYLGz4bQd1Chttps://video.igem.org/lazy-static/thumbnails/47e156d8-8c88-4230-bd5d-baf757380e8c.jpgAnatolia-College: Judging Session (2024)[Wiki](https://2024.igem.wiki/anatolia-college)https://static.igem.org/peertube/streaming-playlists/hls/fad6f82a-372f-4948-8cd8-0c519ee63314/0ef5aaad-8e3c-42c4-aeec-654d72ddb636-master.m3u8https://video.igem.org/videos/embed/wYx661TYZuEKYLGz4bQd1C15040112024-12-03T21:47:47.366ZYES2024 Judging SessionsNOhttps://video.igem.org/w/hHEfUpnhkLSwrHqnkxLpJghttps://video.igem.org/lazy-static/thumbnails/f610e5ed-3968-427f-a8db-0e6e5a7ee6ce.jpgPuiChing-Macau: Judging Session (2024)[Wiki](https://2024.igem.wiki/puiching-macau)https://static.igem.org/peertube/streaming-playlists/hls/87634a31-756f-445f-a5e2-cde862cf20bf/c12ef40c-4fba-4fb9-8b2e-1446adca0189-master.m3u8https://video.igem.org/videos/embed/hHEfUpnhkLSwrHqnkxLpJg1568062024-12-03T23:15:45.700ZYES2024 Judging SessionsNOhttps://video.igem.org/w/npsBMHcACyQVD2XivKm68Khttps://video.igem.org/lazy-static/thumbnails/b254067b-4ee3-462a-ad30-7b092a8410de.jpgGEC-Beijing: Judging Session (2024)[Wiki](https://2024.igem.wiki/gec-beijing)https://static.igem.org/peertube/streaming-playlists/hls/ad566c01-b872-441b-a1b8-7a5dc0df5625/bf6ae685-9e7f-4c82-b080-5cde1a194a60-master.m3u8https://video.igem.org/videos/embed/npsBMHcACyQVD2XivKm68K1489042024-12-03T23:02:27.781ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7S5FnHJfppdFuH6vW7WgGkhttps://video.igem.org/lazy-static/thumbnails/92dc761a-95c7-4b47-930f-759dcb76e06e.jpgSquirrel-Beijing: Judging Session (2024)[Wiki](https://2024.igem.wiki/squirrel-beijing)https://static.igem.org/peertube/streaming-playlists/hls/3794e767-0c9b-420c-9257-d7147558e78f/b099772c-7cb1-4698-aa06-b5f426a00338-master.m3u8https://video.igem.org/videos/embed/7S5FnHJfppdFuH6vW7WgGk1538032024-12-03T21:56:06.616ZYES2024 Judging SessionsNOhttps://video.igem.org/w/9zW2fJ3FwDmxLeMA63tXLRhttps://video.igem.org/lazy-static/thumbnails/cee95b89-e34a-42e2-84c6-291a3ba12677.jpgBoston-BOSLab: Judging Session (2024)[Wiki](https://2024.igem.wiki/boston-boslab)https://static.igem.org/peertube/streaming-playlists/hls/4585f219-157c-4cda-afd2-2e217287a35d/d67fff70-f6e1-45e1-a2e2-1c540d60bc23-master.m3u8https://video.igem.org/videos/embed/9zW2fJ3FwDmxLeMA63tXLR14850222024-12-03T21:57:41.893ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8aU5xR9GAgwH7C16EtsJschttps://video.igem.org/lazy-static/thumbnails/f6ada478-ae34-4fd1-b9d2-a4ea72d05a75.jpgSHSBNU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/shsbnu-china)https://static.igem.org/peertube/streaming-playlists/hls/3a11c24f-6bee-4849-99d1-17daeea62f97/afdeb072-e62f-4760-be3e-3b18f412f77a-master.m3u8https://video.igem.org/videos/embed/8aU5xR9GAgwH7C16EtsJsc1486062024-12-03T22:04:33.832ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qxNJXz8NWuZgYtrebDEno8https://video.igem.org/lazy-static/thumbnails/af0466c4-6b05-45dd-9c39-b9956c37e2ae.jpgYiYe-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/yiye-china)https://static.igem.org/peertube/streaming-playlists/hls/c6cc308d-c5ce-46af-9a1b-89b799f59d37/9c5fe03e-91d3-48c4-9f17-24071484ee7a-master.m3u8https://video.igem.org/videos/embed/qxNJXz8NWuZgYtrebDEno81579032024-12-03T22:22:44.525ZYES2024 Judging SessionsNOhttps://video.igem.org/w/pmw8X9bNgBHHWykUrFLJdLhttps://video.igem.org/lazy-static/thumbnails/4fa955e9-8350-42af-8ea9-2cecfd226675.jpgHWFLA-Beijing: Judging Session (2024)[Wiki](https://2024.igem.wiki/hwfla-beijing)https://static.igem.org/peertube/streaming-playlists/hls/bd1fa320-9558-49a5-b15d-22a6abd6c83c/1a395c0e-136c-4aed-9bfa-91678bda2fb2-master.m3u8https://video.igem.org/videos/embed/pmw8X9bNgBHHWykUrFLJdL1589082024-12-03T22:31:03.855ZYES2024 Judging SessionsNOhttps://video.igem.org/w/bZ5jvKHW6Z8x89E1DpG1X1https://video.igem.org/lazy-static/thumbnails/8413686b-6289-40f1-bb93-d8e0512bb5f4.jpgQS-FMI: Judging Session (2024)[Wiki](https://2024.igem.wiki/qs-fmi)https://static.igem.org/peertube/streaming-playlists/hls/58f3717b-2117-41ab-892c-fd22a98dc046/b3807759-0335-4f4c-b02d-2dbce8819182-master.m3u8https://video.igem.org/videos/embed/bZ5jvKHW6Z8x89E1DpG1X11378012024-12-03T22:17:14.268ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fX68d8cpxg57NhPAkaB1Pphttps://video.igem.org/lazy-static/thumbnails/07aaf51e-c842-4651-8265-9852026d8587.jpgLINKS-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/links-china)https://static.igem.org/peertube/streaming-playlists/hls/791101ad-2209-4824-9d7c-c9d62a3cb4a5/5146d8e2-d53c-438a-ba2d-726aeba250e1-master.m3u8https://video.igem.org/videos/embed/fX68d8cpxg57NhPAkaB1Pp15100142024-12-04T00:44:04.861ZYES2024 Judging SessionsNOhttps://video.igem.org/w/tKJ8Lmo4euuNrUvg2sh4Tmhttps://video.igem.org/lazy-static/thumbnails/699a3cb6-f6b8-412f-9058-f49ba74fde0b.jpgSubCat-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/subcat-china)https://static.igem.org/peertube/streaming-playlists/hls/e0c1b11d-367a-47c2-83e6-573a8db9430e/d57e083e-2eb6-44c9-b172-fe7f0d5a0935-master.m3u8https://video.igem.org/videos/embed/tKJ8Lmo4euuNrUvg2sh4Tm1564022024-12-04T00:54:50.578ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wCZ7BBGPd6iU75NQMxFTNyhttps://video.igem.org/lazy-static/thumbnails/6693303f-d294-4ec2-86dd-4d9988f7e886.jpgULC: Judging Session (2024)[Wiki](https://2024.igem.wiki/ulc)https://static.igem.org/peertube/streaming-playlists/hls/f81c221f-9992-4549-820b-b815a673dde0/7fd63444-e50a-4c85-8f35-100f6bd0b2d8-master.m3u8https://video.igem.org/videos/embed/wCZ7BBGPd6iU75NQMxFTNy1392072024-12-04T00:55:48.427ZYES2024 Judging SessionsNOhttps://video.igem.org/w/nBMG3fe6gDQKrGzgUFqNu4https://video.igem.org/lazy-static/thumbnails/1e06326f-9a39-4169-ba33-3f781736dc76.jpgSubCat-HS: Judging Session (2024)[Wiki](https://2024.igem.wiki/subcat-hs)https://static.igem.org/peertube/streaming-playlists/hls/af0f19fa-09e8-42d4-901f-c77e21e1dec3/1a5b1e2b-bb89-45fb-8e1e-9732a634a7f2-master.m3u8https://video.igem.org/videos/embed/nBMG3fe6gDQKrGzgUFqNu41382042024-12-04T01:01:27.308ZYES2024 Judging SessionsNOhttps://video.igem.org/w/o88ZeFHJ3qXE9ar3U7i2Pqhttps://video.igem.org/lazy-static/thumbnails/3ccfbe4f-e260-45d1-be16-a2b818a9dff0.jpgHK-United: Judging Session (2024)[Wiki](https://2024.igem.wiki/hk-united)https://static.igem.org/peertube/streaming-playlists/hls/b3282dd0-c0ac-4d38-83ab-29e6abfcc36a/38297b3d-2fc8-466f-82e7-73ed727ed6f1-master.m3u8https://video.igem.org/videos/embed/o88ZeFHJ3qXE9ar3U7i2Pq16250232024-12-04T00:54:57.813ZYES2024 Judging SessionsNOhttps://video.igem.org/w/4nQkjY2vd2rJRTYZMfN26nhttps://video.igem.org/lazy-static/thumbnails/3dcdc34f-929e-4958-93a7-f7e215564221.jpgSEHS: Judging Session (2024)[Wiki](https://2024.igem.wiki/sehs)https://static.igem.org/peertube/streaming-playlists/hls/1b57d251-9a5e-413a-9398-0ac9cfca42cb/7ae36e64-f609-4364-a7bc-b5872b2fb20c-master.m3u8https://video.igem.org/videos/embed/4nQkjY2vd2rJRTYZMfN26n702022024-12-04T00:58:17.882ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gMnL8z39AWMA6k4rwy591Vhttps://video.igem.org/lazy-static/thumbnails/19bd922d-365b-4bf4-a8cd-9dd1a4ab2df8.jpgSubCat-Peking: Judging Session (2024)[Wiki](https://2024.igem.wiki/subcat-peking)https://static.igem.org/peertube/streaming-playlists/hls/7fcef5cd-3de5-41c0-a4eb-0a95e002bd75/0af3119f-68b3-462c-859e-3e81e5622674-master.m3u8https://video.igem.org/videos/embed/gMnL8z39AWMA6k4rwy591V1313042024-12-04T02:06:16.689ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5gX64AbgCeLmj67HA3UU2Zhttps://video.igem.org/lazy-static/thumbnails/ebb11fa2-b09b-4d39-97a9-eb8dbb0bf78c.jpgRBHS-San-Diego: Judging Session (2024)[Wiki](https://2024.igem.wiki/rbhs-san-diego)https://static.igem.org/peertube/streaming-playlists/hls/229ea8f1-162f-4993-8330-3f8386568d83/eab20c13-c09c-49a7-829f-38175d7d0bc6-master.m3u8https://video.igem.org/videos/embed/5gX64AbgCeLmj67HA3UU2Z1484002024-12-04T01:55:29.786ZYES2024 Judging SessionsNOhttps://video.igem.org/w/9QnxhCWKtpQSCdbvNoQ7rhhttps://video.igem.org/lazy-static/thumbnails/7002ee54-6136-41ad-96ec-21808bfe0102.jpgPLKNPL-HK: Judging Session (2024)[Wiki](https://2024.igem.wiki/plknpl-hk)https://static.igem.org/peertube/streaming-playlists/hls/478a159a-3505-4459-85f1-fad415970872/5cd9248d-ea8f-4d13-8d42-8542657bda09-master.m3u8https://video.igem.org/videos/embed/9QnxhCWKtpQSCdbvNoQ7rh777022024-12-04T01:59:08.257ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fcuZdG4YUhEngVmkWw1G3Mhttps://video.igem.org/lazy-static/thumbnails/0dbe1ec0-3317-4595-8835-c0a8cb95100e.jpgSHSID-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/shsid-china)https://static.igem.org/peertube/streaming-playlists/hls/72fafc7d-c9e4-4bf3-89ce-62c6f9bbada1/374a5033-114f-4a27-b775-0088c4c72428-master.m3u8https://video.igem.org/videos/embed/fcuZdG4YUhEngVmkWw1G3M1197012024-12-04T03:22:04.691ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2YqRygBnqyG2Bwx2XKZa3qhttps://video.igem.org/lazy-static/thumbnails/a6e03f54-b4b5-4b3e-9dc3-c28ee4f471db.jpgCCA-San-Diego: Judging Session (2024)[Wiki](https://2024.igem.wiki/cca-san-diego)https://static.igem.org/peertube/streaming-playlists/hls/0ffa1b5b-36f9-4360-bf3e-e99c1022bc88/5713742c-d934-4b07-9229-708fedd42635-master.m3u8https://video.igem.org/videos/embed/2YqRygBnqyG2Bwx2XKZa3q16770142024-12-04T01:42:54.586ZYES2024 Judging SessionsNOhttps://video.igem.org/w/bfX542qErG64BXNkQ1ztAKhttps://video.igem.org/lazy-static/thumbnails/ae835140-d86e-4026-b81b-57a48161ba22.jpgHS-Alpha: Judging Session (2024)[Wiki](https://2024.igem.wiki/hs-alpha)https://static.igem.org/peertube/streaming-playlists/hls/5311bcc5-93f3-455f-aadb-9f66f1e0ca93/6ffcfa38-fb85-465d-ba04-9478f3ca22f0-master.m3u8https://video.igem.org/videos/embed/bfX542qErG64BXNkQ1ztAK1456022024-12-04T01:47:07.233ZYES2024 Judging SessionsNOhttps://video.igem.org/w/73sQXYj9rv9HUaU1ytJJC3https://video.igem.org/lazy-static/thumbnails/2a4ab99c-3faf-4ebf-b8e1-6b4e19e6949c.jpgNYC-Empire-State: Judging Session (2024)[Wiki](https://2024.igem.wiki/nyc-empire-state)https://static.igem.org/peertube/streaming-playlists/hls/30eedce3-2636-4081-bc97-4a734b2c3652/d074ab57-f483-4357-9334-604f4a70ef8a-master.m3u8https://video.igem.org/videos/embed/73sQXYj9rv9HUaU1ytJJC313170162024-12-04T02:41:51.067ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jk8WNmhF4DwZSnMfJMLWrbhttps://video.igem.org/lazy-static/thumbnails/0d402297-0b9a-4542-be5a-d84939c2e5c3.jpgThailand-RIS: Judging Session (2024)[Wiki](https://2024.igem.wiki/thailand-ris)https://static.igem.org/peertube/streaming-playlists/hls/9470860f-8954-49c1-9693-3b51fe1e3f3c/88b4c516-d0d6-47d6-ae4b-2eeaa3fbae89-master.m3u8https://video.igem.org/videos/embed/jk8WNmhF4DwZSnMfJMLWrb14760152024-12-04T03:04:04.484ZYES2024 Judging SessionsNOhttps://video.igem.org/w/t6UhQbYw5PkXYKbaQSqPSXhttps://video.igem.org/lazy-static/thumbnails/eecbda99-353d-465e-895d-ee9ae397eb22.jpgWLSA-ShanghaiAcademy: Judging Session (2024)[Wiki](https://2024.igem.wiki/wlsa-shanghaiacademy)https://static.igem.org/peertube/streaming-playlists/hls/db79b009-55e2-49d2-ba4c-e2d134bfa447/b1d98e47-ddab-446c-828b-f31e3618cc19-master.m3u8https://video.igem.org/videos/embed/t6UhQbYw5PkXYKbaQSqPSX1556042024-12-04T02:58:03.708ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cdg4KYkqNsJvgG1LnTH19thttps://video.igem.org/lazy-static/thumbnails/2578ac60-e5c8-4de4-9763-51acd318df6d.jpgTestDaily-I-Beijing: Judging Session (2024)[Wiki](https://2024.igem.wiki/testdaily-i-beijing)https://static.igem.org/peertube/streaming-playlists/hls/5acabc08-d61b-4cda-8b1f-1d57f2aed7a3/14aa3fcb-cea7-47d5-a5d0-338321656e79-master.m3u8https://video.igem.org/videos/embed/cdg4KYkqNsJvgG1LnTH19t1505092024-12-04T01:57:36.342ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cwX3UfJ4YWTxBiFDPgX2Ldhttps://video.igem.org/lazy-static/thumbnails/400d160d-c95c-49a4-bfee-12e500e4e22b.jpgAIS-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/ais-china)https://static.igem.org/peertube/streaming-playlists/hls/5d66c39e-8672-44fc-a0a1-0b3f148fa5d0/851b2480-e47b-440d-86aa-c1e1b1ce0f06-master.m3u8https://video.igem.org/videos/embed/cwX3UfJ4YWTxBiFDPgX2Ld14650852024-12-04T01:52:14.481ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jb7YWiqY9h5fuETubLZ4LLhttps://video.igem.org/lazy-static/thumbnails/08600ffc-bd00-41b1-8889-e305b736cee3.jpgPLKLFC: Judging Session (2024)[Wiki](https://2024.igem.wiki/plklfc)https://static.igem.org/peertube/streaming-playlists/hls/932e3c76-4a6b-40fe-9be0-a7e94a3fb7f8/9700bea1-68e8-4980-bcca-a2a7cb2e38d1-master.m3u8https://video.igem.org/videos/embed/jb7YWiqY9h5fuETubLZ4LL15350122024-12-04T03:03:24.990ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6oS6YLTwwQkNpPLSWeAL3uhttps://video.igem.org/lazy-static/thumbnails/0d5ee490-f2c0-4e9a-936d-053f91137d55.jpgJIASHU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/jiashu-china)https://static.igem.org/peertube/streaming-playlists/hls/2baeeef0-d701-4326-8009-9f09d28f1120/e1aa7607-06a9-4edd-986f-5048555379cb-master.m3u8https://video.igem.org/videos/embed/6oS6YLTwwQkNpPLSWeAL3u16600102024-12-04T02:04:39.593ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mr59yfrBiiwPTGx6gcoE5thttps://video.igem.org/lazy-static/thumbnails/1841d205-ace9-456b-a3f3-9943bd822917.jpgSZ-SHD: Judging Session (2024)[Wiki](https://2024.igem.wiki/sz-shd)https://static.igem.org/peertube/streaming-playlists/hls/a576ec67-1b38-44fd-861f-a1f1d8dc9e9b/a11d8ea9-a412-4d8c-a774-1df4981c9d14-master.m3u8https://video.igem.org/videos/embed/mr59yfrBiiwPTGx6gcoE5t1566002024-12-04T02:09:42.181ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aJcNhx2Aipmb9oCg7SEZvthttps://video.igem.org/lazy-static/thumbnails/ed31cb77-d5e5-4d78-b654-9301b020d660.jpgSquirrel-Shanghai: Judging Session (2024)[Wiki](https://2024.igem.wiki/squirrel-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/4ec6c1cf-2903-4220-824f-d902ce0e9a41/e5bb84a6-2e3c-4745-b1fb-6adff734063c-master.m3u8https://video.igem.org/videos/embed/aJcNhx2Aipmb9oCg7SEZvt1474042024-12-04T02:08:37.541ZYES2024 Judging SessionsNOhttps://video.igem.org/w/hPHUG7ZVZq1tkXSdtiGLWrhttps://video.igem.org/lazy-static/thumbnails/77080029-3600-4383-9c1d-93ab18cfc8c3.jpgHKSSC: Judging Session (2024)[Wiki](https://2024.igem.wiki/hkssc)https://static.igem.org/peertube/streaming-playlists/hls/883c00b5-5943-4041-a6de-16ef917c73b5/2e23a3a6-26e3-4589-96b1-dc4f413a644f-master.m3u8https://video.igem.org/videos/embed/hPHUG7ZVZq1tkXSdtiGLWr1425032024-12-04T02:45:41.487ZYES2024 Judging SessionsNOhttps://video.igem.org/w/hDXQCB2yep47eHfdjtLHW4https://video.igem.org/lazy-static/thumbnails/49ff02f5-8184-49e0-8f10-5c88f42fe546.jpgCSW-UD: Judging Session (2024)[Wiki](https://2024.igem.wiki/csw-ud)https://static.igem.org/peertube/streaming-playlists/hls/86df2654-9220-4c9c-9e1d-5ca091daa4d3/e96e4250-21a9-4a40-a03e-79eae6a5139f-master.m3u8https://video.igem.org/videos/embed/hDXQCB2yep47eHfdjtLHW41524012024-12-04T02:08:20.163ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vytS2MvfZWy3Fma6xS4eUdhttps://video.igem.org/lazy-static/thumbnails/ab25278c-ce2b-463d-8833-f16e75f658b9.jpgSquirrel-Beijing-II: Judging Session (2024)[Wiki](https://2024.igem.wiki/squirrel-beijing-ii)https://static.igem.org/peertube/streaming-playlists/hls/ef61fe22-ae51-42ec-b72f-fea056ac2060/3cf9ab87-3d46-466f-bf36-fc8b3cfb2b1a-master.m3u8https://video.igem.org/videos/embed/vytS2MvfZWy3Fma6xS4eUd1322032024-12-04T02:56:23.284ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jyGUNnUSn4eZzsnoVDtC38https://video.igem.org/lazy-static/thumbnails/697cb95a-0288-4ce2-8c88-98796a5607c0.jpgBNDS-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/bnds-china)https://static.igem.org/peertube/streaming-playlists/hls/96558227-41fb-409b-9fcf-f9294dce0f33/f6970cb0-128a-4ab5-a079-c04d10ab09bc-master.m3u8https://video.igem.org/videos/embed/jyGUNnUSn4eZzsnoVDtC3815140462024-12-04T03:15:31.810ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fkxMTai1ntNoss2vXcftPrhttps://video.igem.org/lazy-static/thumbnails/888b11dc-62ae-4c13-8b85-d29f2358df4a.jpgBAID-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/baid-china)https://static.igem.org/peertube/streaming-playlists/hls/741aaa31-2f0b-42e2-ba19-c631f00e668b/033aca68-a218-4dda-99ee-8c30c8ab6ec9-master.m3u8https://video.igem.org/videos/embed/fkxMTai1ntNoss2vXcftPr15730182024-12-04T03:18:37.807ZYES2024 Judging SessionsNOhttps://video.igem.org/w/25dsTySmRJr3Pj6wjeJ4NKhttps://video.igem.org/lazy-static/thumbnails/06ec8d84-5f87-4ce5-9313-6fd80d0b0ee5.jpgKCIS-Xiugang-Taipei: Judging Session (2024)[Wiki](https://2024.igem.wiki/kcis-xiugang-taipei)https://static.igem.org/peertube/streaming-playlists/hls/08afcb72-12fb-4d4c-8345-d71a0a27c3a3/29206bfb-ec0e-4135-8327-867ed763c6e5-master.m3u8https://video.igem.org/videos/embed/25dsTySmRJr3Pj6wjeJ4NK1551062024-12-04T04:07:15.269ZYES2024 Judging SessionsNOhttps://video.igem.org/w/eUqKnLyKMbRWm6kfVv7Y1bhttps://video.igem.org/lazy-static/thumbnails/8bf13f1f-eba5-472f-b96a-b3bbe85606dc.jpgDBHS-CA: Judging Session (2024)[Wiki](https://2024.igem.wiki/dbhs-ca)https://static.igem.org/peertube/streaming-playlists/hls/7098bae2-e265-4ff2-86fe-50b5d7819dca/614da085-3310-425f-87b5-bad775911b0a-master.m3u8https://video.igem.org/videos/embed/eUqKnLyKMbRWm6kfVv7Y1b13380132024-12-04T04:56:59.164ZYES2024 Judging SessionsNOhttps://video.igem.org/w/sYr6p89PAFDen29QgaPEGJhttps://video.igem.org/lazy-static/thumbnails/556e35ff-ba81-4ec3-80c1-44f750cc1961.jpgKhanLabSchool: Judging Session (2024)[Wiki](https://2024.igem.wiki/khanlabschool)https://static.igem.org/peertube/streaming-playlists/hls/da6eb86e-c362-420e-82c8-f96dcacad2da/b105a167-e040-4505-9af6-6da5494e703f-master.m3u8https://video.igem.org/videos/embed/sYr6p89PAFDen29QgaPEGJ1336062024-12-04T04:34:19.147ZYES2024 Judging SessionsNOhttps://video.igem.org/w/hBHpjjQHRH22Rdkxhh7H2vhttps://video.igem.org/lazy-static/thumbnails/f72a1c57-412c-4c84-b8f4-fe825d5fed0d.jpgSRE-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/sre-china)https://static.igem.org/peertube/streaming-playlists/hls/868ec3f1-249e-4092-a073-3da751ae8e4b/685bcf0b-75ad-4a61-a90b-35a83cd286a2-master.m3u8https://video.igem.org/videos/embed/hBHpjjQHRH22Rdkxhh7H2v1460062024-12-04T03:02:02.029ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mNBxz54jCpSDpxB8t731v5https://video.igem.org/lazy-static/thumbnails/5bb51697-187f-430d-9f29-7a476c081b17.jpgNAIS: Judging Session (2024)[Wiki](https://2024.igem.wiki/nais)https://static.igem.org/peertube/streaming-playlists/hls/a878e43e-a97b-44ff-890f-e954fd62f566/217b319d-5829-4cdb-ba3e-26ed7457d2f9-master.m3u8https://video.igem.org/videos/embed/mNBxz54jCpSDpxB8t731v51389062024-12-04T02:52:54.393ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7uBVn5VQHA5VFoxzPZ6ga2https://video.igem.org/lazy-static/thumbnails/d8a4a937-991e-4c63-a5dc-c877f5323e06.jpgGEC-Guangzhou: Judging Session (2024)[Wiki](https://2024.igem.wiki/gec-guangzhou)https://static.igem.org/peertube/streaming-playlists/hls/3495cb46-77c4-41c4-8e64-4629fb3bde9f/9438ebd2-52d8-4836-a6f3-06da94d162ac-master.m3u8https://video.igem.org/videos/embed/7uBVn5VQHA5VFoxzPZ6ga21316062024-12-04T02:55:30.767ZYES2024 Judging SessionsNOhttps://video.igem.org/w/o2HPPQfdT9nJBXxdsqCMtjhttps://video.igem.org/lazy-static/thumbnails/10b67e70-4790-47e9-8723-b55f800c1e61.jpgNASSZ: Judging Session (2024)[Wiki](https://2024.igem.wiki/nassz)https://static.igem.org/peertube/streaming-playlists/hls/b26691d0-d69b-40fe-b608-e42f80f77464/d06428b2-0b1f-44d3-894f-167856ab2d64-master.m3u8https://video.igem.org/videos/embed/o2HPPQfdT9nJBXxdsqCMtj1200042024-12-04T02:49:04.969ZYES2024 Judging SessionsNOhttps://video.igem.org/w/uCphGvmxvvbJYfNCKrQev8https://video.igem.org/lazy-static/thumbnails/b856acfe-6217-499b-9ed2-068bace1a5a3.jpgTHISDL-United: Judging Session (2024)[Wiki](https://2024.igem.wiki/thisdl-united)https://static.igem.org/peertube/streaming-playlists/hls/e7d50287-7d7b-4898-8551-dae823a32b5d/4f2ccd0e-cc80-47ae-badd-3d41089dcfdc-master.m3u8https://video.igem.org/videos/embed/uCphGvmxvvbJYfNCKrQev81551032024-12-04T03:15:14.779ZYES2024 Judging SessionsNOhttps://video.igem.org/w/44Q9UyGv1433tcqyvMnDGShttps://video.igem.org/lazy-static/thumbnails/95c5d7ee-03c9-4341-a3b8-b48ca425b3e1.jpgSquirrel-Shenzhen: Judging Session (2024)[Wiki](https://2024.igem.wiki/squirrel-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/18d452ae-6432-4406-9b8b-c2d2972288ae/d08202ff-7b29-49cb-83fc-32956269619a-master.m3u8https://video.igem.org/videos/embed/44Q9UyGv1433tcqyvMnDGS1552022024-12-04T04:02:04.383ZYES2024 Judging SessionsNOhttps://video.igem.org/w/w2rK8zZK2cCUUbxa8rASghhttps://video.igem.org/lazy-static/thumbnails/3e4bd54c-ea19-449c-bfbe-79828922b900.jpgLethbridgeHS: Judging Session (2024)[Wiki](https://2024.igem.wiki/lethbridgehs)https://static.igem.org/peertube/streaming-playlists/hls/f325c4c6-1ec2-4d82-8ebf-d2851812bb7e/4502fe3a-e19b-4160-a777-50edad764b63-master.m3u8https://video.igem.org/videos/embed/w2rK8zZK2cCUUbxa8rASgh1503032024-12-04T03:04:40.065ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1tbERSLDtGbXGPCG1BNBfuhttps://video.igem.org/lazy-static/thumbnails/a149595d-9719-4d74-b233-3adf5f8f7708.jpgGCM-KY: Judging Session (2024)[Wiki](https://2024.igem.wiki/gcm-ky)https://static.igem.org/peertube/streaming-playlists/hls/03cba84c-0a3a-4d31-96d9-1070e6f66a94/8ecbdd40-bc7d-4914-add8-1addd4d1f7eb-master.m3u8https://video.igem.org/videos/embed/1tbERSLDtGbXGPCG1BNBfu1510052024-12-04T03:11:09.931ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wCcPJbBf19pdBPN6J86xSMhttps://video.igem.org/lazy-static/thumbnails/7819fea3-ba60-416b-836b-eae42c905fbd.jpgLCG-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/lcg-china)https://static.igem.org/peertube/streaming-playlists/hls/f80038bc-cf7b-487e-94d8-6e480ebf7495/d06af50e-f427-4765-83e0-7f40ead842e4-master.m3u8https://video.igem.org/videos/embed/wCcPJbBf19pdBPN6J86xSM1264052024-12-04T03:47:56.128ZYES2024 Judging SessionsNOhttps://video.igem.org/w/irqkE9x69siTdmWdjebngvhttps://video.igem.org/lazy-static/thumbnails/9b85d413-f9e4-462d-aa03-b8ae3741e10e.jpgjky-wuhan-china: Judging Session (2024)[Wiki](https://2024.igem.wiki/jky-wuhan-china)https://static.igem.org/peertube/streaming-playlists/hls/8d37f36b-f2e4-4c43-a0ed-8f15bffe2e17/7cf17989-de35-49f7-9e0d-863b10015c38-master.m3u8https://video.igem.org/videos/embed/irqkE9x69siTdmWdjebngv1199022024-12-04T03:41:38.778ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8cnFCNo8PvD3bWbBqyuCTZhttps://video.igem.org/lazy-static/thumbnails/6f66fd53-7244-42ee-a6ab-7ef47293726d.jpgWHHS-Pro-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/whhs-pro-china)https://static.igem.org/peertube/streaming-playlists/hls/3a4683d2-8530-4e4f-acfa-0a218e1e87f7/47232b15-b8df-4f2a-b6d1-0f0f2b742eb4-master.m3u8https://video.igem.org/videos/embed/8cnFCNo8PvD3bWbBqyuCTZ1221012024-12-04T03:42:52.172ZYES2024 Judging SessionsNOhttps://video.igem.org/w/h2AFa7AEHqjsaYsn2zwTv9https://video.igem.org/lazy-static/thumbnails/fb9ec441-e3bc-4495-90f7-ddb198e4bf97.jpgFormosa: Judging Session (2024)[Wiki](https://2024.igem.wiki/formosa)https://static.igem.org/peertube/streaming-playlists/hls/81cb54e5-f12e-4a46-99f1-dd2e99458866/9d257044-f3a8-49c8-9a3c-bfafcd96acd8-master.m3u8https://video.igem.org/videos/embed/h2AFa7AEHqjsaYsn2zwTv915350192024-12-04T03:08:55.904ZYES2024 Judging SessionsNOhttps://video.igem.org/w/37GLncE76ZKD7jpzjwzsbEhttps://video.igem.org/lazy-static/thumbnails/a05d08ed-79c5-4df9-8e61-9c2f1b00ccd6.jpgHK-Joint-School: Judging Session (2024)[Wiki](https://2024.igem.wiki/hk-joint-school)https://static.igem.org/peertube/streaming-playlists/hls/1121dcba-3699-4ea1-b2fc-2961f9f0ae1a/7d8a7b45-82f5-4339-8e4c-661ea964d6ab-master.m3u8https://video.igem.org/videos/embed/37GLncE76ZKD7jpzjwzsbE15440112024-12-04T04:27:35.522ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6Ukp8HNGVA5VvvPKvT4NUChttps://video.igem.org/lazy-static/thumbnails/934687b0-8bed-443e-b922-23ca95dfca22.jpgOTIA-Hangzhou: Judging Session (2024)[Wiki](https://2024.igem.wiki/otia-hangzhou)https://static.igem.org/peertube/streaming-playlists/hls/2fcc5305-9774-4a7c-9fe9-41013914816c/73d449c7-5712-4f9d-8973-f00f3a7a35a2-master.m3u8https://video.igem.org/videos/embed/6Ukp8HNGVA5VvvPKvT4NUC1517012024-12-04T05:00:49.931ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5wdGhtFrujP3Q9KNGBEFhLhttps://video.igem.org/lazy-static/thumbnails/fa243d0a-a695-40b7-a981-3743eb3e1cdc.jpgOutaouais: Judging Session (2024)[Wiki](https://2024.igem.wiki/outaouais)https://static.igem.org/peertube/streaming-playlists/hls/249cb0e7-c295-4333-9ff2-48aab2ef9b68/1011aa84-691d-48b8-880f-85ff30d3bc9a-master.m3u8https://video.igem.org/videos/embed/5wdGhtFrujP3Q9KNGBEFhL1513032024-12-04T04:55:56.184ZYES2024 Judging SessionsNOhttps://video.igem.org/w/32zESHC2UYtJPeFFw6J6tZhttps://video.igem.org/lazy-static/thumbnails/cc8307c0-5269-4ee3-9927-c70378758432.jpgZQT-Nanjing: Judging Session (2024)[Wiki](https://2024.igem.wiki/zqt-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/106ac568-004b-48d6-a056-b9b0742ebceb/e91537d4-2a8e-4f06-bc41-1b0d9354a771-master.m3u8https://video.igem.org/videos/embed/32zESHC2UYtJPeFFw6J6tZ14920252024-12-04T03:46:22.855ZYES2024 Judging SessionsNOhttps://video.igem.org/w/niNabbTGVijUaKPxCuNTjnhttps://video.igem.org/lazy-static/thumbnails/3226715d-b9ac-4698-89fe-0f254c21601d.jpgPINGHE-MCA: Judging Session (2024)[Wiki](https://2024.igem.wiki/pinghe-mca)https://static.igem.org/peertube/streaming-playlists/hls/ac8c007f-e94e-464a-b630-94b1a9c12205/faa0c6ee-307b-45a7-b240-98db4fbd92b7-master.m3u8https://video.igem.org/videos/embed/niNabbTGVijUaKPxCuNTjn1544012024-12-04T03:45:11.507ZYES2024 Judging SessionsNOhttps://video.igem.org/w/9TPpJUCS9N3UDJmspq7yZJhttps://video.igem.org/lazy-static/thumbnails/890a7391-298c-400c-9d1d-13b1434cb771.jpgGEMS-Taiwan: Judging Session (2024)[Wiki](https://2024.igem.wiki/gems-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/48054231-dab4-482c-9f46-62bc6fc2d9e4/f3a0022e-e1e4-4228-b51a-842a6e6bb2cd-master.m3u8https://video.igem.org/videos/embed/9TPpJUCS9N3UDJmspq7yZJ114903212024-12-04T05:27:23.881ZYES2024 Judging SessionsNOhttps://video.igem.org/w/27LGVqicrVmMhufSFEfEnvhttps://video.igem.org/lazy-static/thumbnails/dc2671d4-201a-46ec-952f-3d66c4b2c68d.jpgSquirrel-CHN: Judging Session (2024)[Wiki](https://2024.igem.wiki/squirrel-chn)https://static.igem.org/peertube/streaming-playlists/hls/090b26ec-665e-4e23-b088-4794bbe7ada7/71bd4549-34a8-4c95-9088-2b4687f3bb18-master.m3u8https://video.igem.org/videos/embed/27LGVqicrVmMhufSFEfEnv1628002024-12-04T05:23:55.830ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ciVwsStUEnTHH4JQpkMjD5https://video.igem.org/lazy-static/thumbnails/c6907f90-6a84-4e49-9d40-8e262fdbea19.jpgShanghai-BioX: Judging Session (2024)[Wiki](https://2024.igem.wiki/shanghai-biox)https://static.igem.org/peertube/streaming-playlists/hls/5b9527cb-3213-46a4-9350-b0f77616f586/e6686526-6452-48f0-a37f-7c58c5be89f6-master.m3u8https://video.igem.org/videos/embed/ciVwsStUEnTHH4JQpkMjD51491002024-12-04T05:18:17.561ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gHFxj8GKZ6MckFs9Hua7cYhttps://video.igem.org/lazy-static/thumbnails/4778a090-1d9f-4174-80b6-7abd24614afd.jpgDNHS-SanDiego-CA: Judging Session (2024)[Wiki](https://2024.igem.wiki/dnhs-sandiego-ca)https://static.igem.org/peertube/streaming-playlists/hls/7f4af118-a613-4671-bc73-3a6dd4297d56/2fecdb1c-753c-4798-86e3-4819465d3fc1-master.m3u8https://video.igem.org/videos/embed/gHFxj8GKZ6MckFs9Hua7cY14980132024-12-04T04:48:10.695ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6RCcE24ZNFmGfpjMuTN54Jhttps://video.igem.org/lazy-static/thumbnails/af7955be-f0e8-4e3f-95fa-28847928c32d.jpgSubCat-GreatBay: Judging Session (2024)[Wiki](https://2024.igem.wiki/subcat-greatbay)https://static.igem.org/peertube/streaming-playlists/hls/2f6b7299-fd5b-4b06-ac27-d5ba9a790988/d4d8d8e9-4207-4548-8e2d-f1d2e2b85f82-master.m3u8https://video.igem.org/videos/embed/6RCcE24ZNFmGfpjMuTN54J15160112024-12-04T05:29:01.231ZYES2024 Judging SessionsNOhttps://video.igem.org/w/bjzR7cWzi92hw1ZkJ1qDTKhttps://video.igem.org/lazy-static/thumbnails/900b9a97-710f-4eea-9c18-e244714c7595.jpgHW-ShanghaiUnited: Judging Session (2024)[Wiki](https://2024.igem.wiki/hw-shanghaiunited)https://static.igem.org/peertube/streaming-playlists/hls/5393a21a-3d0a-4faa-a02b-10fe4d9b132d/3935710a-f35d-4353-b300-0ad9d9e0e85f-master.m3u8https://video.igem.org/videos/embed/bjzR7cWzi92hw1ZkJ1qDTK1444012024-12-04T05:25:37.554ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qnjKMKuuHJxEx2CvKvvAtXhttps://video.igem.org/lazy-static/thumbnails/27ff2b1f-ef0f-4789-bc6d-a0efa82039b3.jpgEHSBNU: Judging Session (2024)[Wiki](https://2024.igem.wiki/ehsbnu)https://static.igem.org/peertube/streaming-playlists/hls/c5558153-3c00-49a4-bf45-e1d22516de95/3214ad6d-74e9-4b87-b0ec-a0312a5bdfc8-master.m3u8https://video.igem.org/videos/embed/qnjKMKuuHJxEx2CvKvvAtX1579092024-12-04T05:36:05.279ZYES2024 Judging SessionsNOhttps://video.igem.org/w/euzgv84xz1KnA2mwaMxgnGhttps://video.igem.org/lazy-static/thumbnails/c24fbaff-01db-4429-8c57-0d5a217420e8.jpgSG-Raffles: Judging Session (2024)[Wiki](null)https://static.igem.org/peertube/streaming-playlists/hls/6d44213c-69ff-4b23-be65-790505dd11ce/139ebc39-0c4e-4b27-a9a8-75e55f5239c0-master.m3u8https://video.igem.org/videos/embed/euzgv84xz1KnA2mwaMxgnG1433032024-12-04T06:26:20.417ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8qwTa8tL7Djw5YufK8Cw4Bhttps://video.igem.org/lazy-static/thumbnails/3b434de4-5967-461b-ad07-de65f172218d.jpgLIUAN-Nanjing: Judging Session (2024)[Wiki](https://2024.igem.wiki/liuan-nanjing)https://static.igem.org/peertube/streaming-playlists/hls/3c1cda52-a35b-4832-b808-249541a9eb79/0f0a5609-c13d-40d1-ad21-b28bc67ee2f3-master.m3u8https://video.igem.org/videos/embed/8qwTa8tL7Djw5YufK8Cw4B1519042024-12-04T05:37:33.839ZYES2024 Judging SessionsNOhttps://video.igem.org/w/umEn3EPRZSrafo3nr5jrVZhttps://video.igem.org/lazy-static/thumbnails/e46fa141-09ac-458b-80f5-c9e21cb70d5b.jpgHUBU-4-CHN: Judging Session (2024)[Wiki](https://2024.igem.wiki/hubu-4-chn)https://static.igem.org/peertube/streaming-playlists/hls/e5a2665b-809a-41f4-b666-b92fb2e802af/85d02e56-478f-45ca-8cb6-54b541cec1b8-master.m3u8https://video.igem.org/videos/embed/umEn3EPRZSrafo3nr5jrVZ1264042024-12-04T04:59:17.958ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3g7h51iZmZVoc7nvMQvhyshttps://video.igem.org/lazy-static/thumbnails/81bc4378-5c9e-4f60-94cc-5054776069e3.jpgBWYA: Judging Session (2024)[Wiki](https://2024.igem.wiki/bwya)https://static.igem.org/peertube/streaming-playlists/hls/124e4d5f-ad38-409f-811b-40971e8a9602/2bb00c91-bec9-48dc-8935-b0aa21c88194-master.m3u8https://video.igem.org/videos/embed/3g7h51iZmZVoc7nvMQvhys1706062024-12-04T06:06:41.813ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mvSzkGAJdKYyMH82QUGD2yhttps://video.igem.org/lazy-static/thumbnails/bc9db138-c01f-4deb-960e-0b3cbd466691.jpgICJFLS: Judging Session (2024)[Wiki](https://2024.igem.wiki/icjfls)https://static.igem.org/peertube/streaming-playlists/hls/a62282a7-acee-4f8c-adcc-46d7fbfc2cce/b67f046b-ce07-4562-a94e-9207f61d1230-master.m3u8https://video.igem.org/videos/embed/mvSzkGAJdKYyMH82QUGD2y1550072024-12-04T05:50:50.064ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vheXFoM5gUnvbJsyn46Zgghttps://video.igem.org/lazy-static/thumbnails/6a757d86-62ca-49cc-a229-01ebccd23a93.jpgSubCat-Shanghai: Judging Session (2024)[Wiki](https://2024.igem.wiki/subcat-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/ed1d864c-9fdd-477c-9fde-4665fce58391/a424d032-5ce9-4ac6-9db5-aa89e2db6373-master.m3u8https://video.igem.org/videos/embed/vheXFoM5gUnvbJsyn46Zgg16750112024-12-04T06:14:01.601ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vwZCAoywVGCoY6AUEmJdrFhttps://video.igem.org/lazy-static/thumbnails/4718d16f-46fa-429b-9818-70ca0028a1d7.jpgNortheastern-Boston: Judging Session (2024)[Wiki](https://2024.igem.wiki/northeastern-boston)https://static.igem.org/peertube/streaming-playlists/hls/ef2cd9bd-baf8-4712-9e77-1862c1474011/b31ac55c-f557-42b6-b9c9-7ba1a14555f1-master.m3u8https://video.igem.org/videos/embed/vwZCAoywVGCoY6AUEmJdrF11920102024-12-04T05:51:30.978ZYES2024 Judging SessionsNOhttps://video.igem.org/w/dMmCVSGPQ1g8ErccChgaGNhttps://video.igem.org/lazy-static/thumbnails/97655cb1-ebae-4880-94e7-5a98bb7a89c6.jpgHUBU-WUCHANG-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/hubu-wuchang-china)https://static.igem.org/peertube/streaming-playlists/hls/6782d9f4-c190-44b4-82c2-a71ffdc2e49a/eb3239f1-0a73-44b1-a3a6-73e507272ceb-master.m3u8https://video.igem.org/videos/embed/dMmCVSGPQ1g8ErccChgaGN1515072024-12-04T06:05:21.728ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5Uen8tyexCqFMCqRXW3Z79https://video.igem.org/lazy-static/thumbnails/e4be8c58-cbbd-4196-8ff6-9c92b37e44aa.jpgWHU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/whu-china)https://static.igem.org/peertube/streaming-playlists/hls/27af777a-c2e9-47da-a930-5c46ca77e9b8/cc08390b-3643-4f7b-baef-eaaada8eba31-master.m3u8https://video.igem.org/videos/embed/5Uen8tyexCqFMCqRXW3Z791566092024-12-04T06:14:10.775ZYES2024 Judging SessionsNOhttps://video.igem.org/w/9Y95xUJG1ZfJ3JS5MiNaNBhttps://video.igem.org/lazy-static/thumbnails/9e77f67a-1a5c-47d1-b695-191d30e0b5e1.jpgBioplus-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/bioplus-china)https://static.igem.org/peertube/streaming-playlists/hls/489fbd2a-01f8-41f3-9e23-5d785a9b4b33/ce671d37-5db1-46e6-9f18-a19d1d667275-master.m3u8https://video.igem.org/videos/embed/9Y95xUJG1ZfJ3JS5MiNaNB1455062024-12-04T05:41:09.741ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aqDajPBfTruexrJfBevJ98https://video.igem.org/lazy-static/thumbnails/410c2379-efa1-47b3-be91-333ee94cf8a7.jpgTERMOSZ-Selye-HUN: Judging Session (2024)[Wiki](https://2024.igem.wiki/termosz-selye-hun)https://static.igem.org/peertube/streaming-playlists/hls/4c52ffe2-ed26-4be3-858f-d0c86e015277/934b3990-aafb-4cf8-b2f6-41a7ec8ab266-master.m3u8https://video.igem.org/videos/embed/aqDajPBfTruexrJfBevJ981531032024-12-04T05:55:07.735ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gzK9BPhtLVCqpBAXFwmTjchttps://video.igem.org/lazy-static/thumbnails/d645203d-5c6b-426c-b05a-f969d9dba33c.jpgHangzhou-SDG: Judging Session (2024)[Wiki](https://2024.igem.wiki/hangzhou-sdg)https://static.igem.org/peertube/streaming-playlists/hls/7e2f372f-4ef4-4e76-b19b-b56c8a40066b/27f3d966-26c3-4c12-9d1e-a5af86145a34-master.m3u8https://video.igem.org/videos/embed/gzK9BPhtLVCqpBAXFwmTjc1479052024-12-04T06:00:07.982ZYES2024 Judging SessionsNOhttps://video.igem.org/w/oRL2Z8AVYhrn9oqa6Z6fuHhttps://video.igem.org/lazy-static/thumbnails/0a2ed35a-b3e4-4743-945c-fd5aacbc7e6c.jpgNNHS: Judging Session (2024)[Wiki](https://2024.igem.wiki/nnhs)https://static.igem.org/peertube/streaming-playlists/hls/b91ba1de-b9c0-49d7-ae51-f89dd113cc31/9b39b865-4728-4f47-8539-4891436e3909-master.m3u8https://video.igem.org/videos/embed/oRL2Z8AVYhrn9oqa6Z6fuH1461032024-12-04T06:02:35.766ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wYnc5ShJwZddmnaefDvqYwhttps://video.igem.org/lazy-static/thumbnails/6e79d74b-563e-4669-a735-71e4a016598e.jpgKeystone: Judging Session (2024)[Wiki](https://2024.igem.wiki/keystone)https://static.igem.org/peertube/streaming-playlists/hls/fad0ded2-8d56-46db-943a-b87408bd9d86/8d8c524f-fcda-414b-bcd1-edbf21823a61-master.m3u8https://video.igem.org/videos/embed/wYnc5ShJwZddmnaefDvqYw15490362024-12-04T06:11:11.996ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2oJFYPh1LkmiFdWh1vdFCghttps://video.igem.org/lazy-static/thumbnails/08ee6397-7988-4eaf-9155-03546db34d67.jpgBKEA: Judging Session (2024)[Wiki](https://2024.igem.wiki/bkea)https://static.igem.org/peertube/streaming-playlists/hls/0b45cf50-3605-4ddd-9bc0-ec4c527b8e63/a90066a9-8cab-454a-a0d3-6c15f332b9cd-master.m3u8https://video.igem.org/videos/embed/2oJFYPh1LkmiFdWh1vdFCg14860312024-12-04T06:08:23.455ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1S2jK7ZpfVXMCRSN7jK1zBhttps://video.igem.org/lazy-static/thumbnails/28ece9a4-b93b-4631-80b1-191510676992.jpgAFCM-Egypt: Judging Session (2024)[Wiki](https://2024.igem.wiki/afcm-egypt)https://static.igem.org/peertube/streaming-playlists/hls/06fc0101-702d-4d69-847a-6558b4225ab5/a3618c23-1561-4de9-968c-23b08b68e527-master.m3u8https://video.igem.org/videos/embed/1S2jK7ZpfVXMCRSN7jK1zB16060292024-12-04T06:10:50.094ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aZa7CopDhNWRnWfmjTjp4uhttps://video.igem.org/lazy-static/thumbnails/02b3d729-2d88-4bdf-ae2d-78228f3d529e.jpgBioplus-Shanghai: Judging Session (2024)[Wiki](https://2024.igem.wiki/bioplus-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/50dd427b-602f-4359-a1d7-3a82914dc146/b6362208-3416-4d95-b943-2e7f9ad743fb-master.m3u8https://video.igem.org/videos/embed/aZa7CopDhNWRnWfmjTjp4u1526042024-12-04T06:44:16.956ZYES2024 Judging SessionsNOhttps://video.igem.org/w/trkeFsh19RJEyEpFAKWAiqhttps://video.igem.org/lazy-static/thumbnails/6e469683-2320-4e61-9023-e8cdd178e0b8.jpgYiYe-Wuhan: Judging Session (2024)[Wiki](https://2024.igem.wiki/yiye-wuhan)https://static.igem.org/peertube/streaming-playlists/hls/de30314d-cb3d-40cf-bf35-26b3d784fb5a/88366a6b-7f6c-40c6-ade4-0a84133163f9-master.m3u8https://video.igem.org/videos/embed/trkeFsh19RJEyEpFAKWAiq1520002024-12-04T06:38:00.929ZYES2024 Judging SessionsNOhttps://video.igem.org/w/843qQ5HuwsbpnXxpyPpudGhttps://video.igem.org/lazy-static/thumbnails/7d0184b4-aa2f-4438-a912-aa331f2888f6.jpgSongshan-Lake: Judging Session (2024)[Wiki](https://2024.igem.wiki/songshan-lake)https://static.igem.org/peertube/streaming-playlists/hls/391cb2c3-3467-44e2-a264-1b49c34e4098/deeb64b0-9a78-41b3-acd0-1d3c0f1a3365-master.m3u8https://video.igem.org/videos/embed/843qQ5HuwsbpnXxpyPpudG1523082024-12-04T06:40:00.226ZYES2024 Judging SessionsNOhttps://video.igem.org/w/iq2JfCw7mBw9XfoZdk4BDuhttps://video.igem.org/lazy-static/thumbnails/da63096f-3db1-471f-a8ed-3331ee469567.jpgConcordia-Shanghai: Judging Session (2024)[Wiki](https://2024.igem.wiki/concordia-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/8d0645dd-ee83-4983-8070-3ddc981e4dd2/79686f0e-8ea1-4410-89e1-f267d8667a37-master.m3u8https://video.igem.org/videos/embed/iq2JfCw7mBw9XfoZdk4BDu1532072024-12-04T06:48:22.652ZYES2024 Judging SessionsNOhttps://video.igem.org/w/bCSCJNReUpZmrwnm51wJQ9https://video.igem.org/lazy-static/thumbnails/da8cf03c-2acf-4817-9246-3f19234e18b0.jpgShanghai-HS: Judging Session (2024)[Wiki](https://2024.igem.wiki/shanghai-hs)https://static.igem.org/peertube/streaming-playlists/hls/56215dc3-e797-411a-8929-8fb46e318380/73451f09-b32f-421c-ba13-6d051670111c-master.m3u8https://video.igem.org/videos/embed/bCSCJNReUpZmrwnm51wJQ91538072024-12-04T07:55:48.979ZYES2024 Judging SessionsNOhttps://video.igem.org/w/iaAueigx7JXe8cF3BXNWUrhttps://video.igem.org/lazy-static/thumbnails/45f8ed21-b23e-4ded-acd9-b529fb6064f7.jpgLZU-MEDICINE-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/lzu-medicine-china)https://static.igem.org/peertube/streaming-playlists/hls/8b024de9-4a06-4212-9daf-b63b2ae15af9/572880c0-6a53-421c-82e6-1dfc285490e0-master.m3u8https://video.igem.org/videos/embed/iaAueigx7JXe8cF3BXNWUr1379052024-12-04T07:14:15.820ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jNhS5GuWfhGvEiKRi4WUryhttps://video.igem.org/lazy-static/thumbnails/c2b82c1d-a1ec-4905-9367-b00429104205.jpgPatras-Med: Judging Session (2024)[Wiki](https://2024.igem.wiki/patras-med)https://static.igem.org/peertube/streaming-playlists/hls/983b1a0e-3c5d-4e1a-bf63-e93e72d7e31a/90c907ef-809e-41ab-9f97-7b6181117cba-master.m3u8https://video.igem.org/videos/embed/jNhS5GuWfhGvEiKRi4WUry106101262024-12-04T06:56:09.675ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7fSy6ZVJEQ8hgbHoiCkZ8dhttps://video.igem.org/lazy-static/thumbnails/8a974189-d9a8-473b-99e9-dbe1e531d0df.jpgNJMU-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/njmu-china)https://static.igem.org/peertube/streaming-playlists/hls/32aa6642-143a-43de-a352-313e01b5857e/9daa0747-a00d-4cc1-b73b-ed907f6c7931-master.m3u8https://video.igem.org/videos/embed/7fSy6ZVJEQ8hgbHoiCkZ8d1526012024-12-04T07:25:11.541ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vr7TzuWSUJnXHBEcJU8QYUhttps://video.igem.org/lazy-static/thumbnails/34615ec9-7038-4ed1-b54d-7670ac4b10e3.jpgManchester: Judging Session (2024)[Wiki](https://2024.igem.wiki/manchester)https://static.igem.org/peertube/streaming-playlists/hls/ee5adc6d-eb09-44cb-9e45-e5ea17f6f2fc/b859ac93-e844-4168-a9d4-8270c62dad36-master.m3u8https://video.igem.org/videos/embed/vr7TzuWSUJnXHBEcJU8QYU15570102024-12-04T08:20:14.310ZYES2024 Judging SessionsNOhttps://video.igem.org/w/sNAhZQeeZPNz6fCvnMPqmVhttps://video.igem.org/lazy-static/thumbnails/638f61c5-64d9-43b9-8b82-95d145c51179.jpgBielefeld-CeBiTec: Judging Session (2024)[Wiki](https://2024.igem.wiki/bielefeld-cebitec)https://static.igem.org/peertube/streaming-playlists/hls/d90ef3d2-1bb5-426e-8ab7-8e644d1a22a5/d71cdcd8-0907-4e12-8e32-5632c303ba21-master.m3u8https://video.igem.org/videos/embed/sNAhZQeeZPNz6fCvnMPqmV15290552024-12-04T08:31:13.435ZYES2024 Judging SessionsNOhttps://video.igem.org/w/coH4sa577MVbiitpNMgcbZhttps://video.igem.org/lazy-static/thumbnails/5e14c51d-401b-4d63-9377-f8b3854f50a6.jpgNUDT-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/nudt-china)https://static.igem.org/peertube/streaming-playlists/hls/5c403127-edd7-47db-aafd-457dbeef4031/a6a11578-529d-4b16-b8aa-0c847707e2df-master.m3u8https://video.igem.org/videos/embed/coH4sa577MVbiitpNMgcbZ13090102024-12-04T07:57:18.078ZYES2024 Judging SessionsNOhttps://video.igem.org/w/kujnUdLabT42Ae1uRTLoMHhttps://video.igem.org/lazy-static/thumbnails/4ff64f8a-c572-439a-9fad-afabc99f8344.jpgTJUSX: Judging Session (2024)[Wiki](https://2024.igem.wiki/tjusx)https://static.igem.org/peertube/streaming-playlists/hls/9dd1c923-3346-4078-9df4-a37c79424423/c4b0af7b-044d-4cd9-aac3-ba03a435899b-master.m3u8https://video.igem.org/videos/embed/kujnUdLabT42Ae1uRTLoMH1500012024-12-04T08:27:47.777ZYES2024 Judging SessionsNOhttps://video.igem.org/w/4cvpDn599SkCSntqpTcEoyhttps://video.igem.org/lazy-static/thumbnails/6803ea5a-0c7a-433b-b011-5959cb2c3efd.jpgDUT-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/dut-china)https://static.igem.org/peertube/streaming-playlists/hls/19e6b876-d8d7-464d-8001-2e5f94ffc63c/718d07ca-5cc1-407f-9b44-5fa343b2e92a-master.m3u8https://video.igem.org/videos/embed/4cvpDn599SkCSntqpTcEoy1545042024-12-04T07:14:22.477ZYES2024 Judging SessionsNOhttps://video.igem.org/w/k8u6KgWQM9tXcVv5LHZtHQhttps://video.igem.org/lazy-static/thumbnails/cbe3dd57-9d91-4709-8305-4f6e4dce3c65.jpgUNC-ChapelHill: Judging Session (2024)[Wiki](https://2024.igem.wiki/unc-chapelhill)https://static.igem.org/peertube/streaming-playlists/hls/9ae92858-50b8-41e9-82a1-a22eddf79ebe/936a441a-4490-4a93-bd3f-746bc938b777-master.m3u8https://video.igem.org/videos/embed/k8u6KgWQM9tXcVv5LHZtHQ1507092024-12-04T07:08:34.825ZYES2024 Judging SessionsNOhttps://video.igem.org/w/pawkSiSbr9tx7fTvxt22idhttps://video.igem.org/lazy-static/thumbnails/04c5a9dc-f88a-43ef-b8df-d57ccdc55788.jpgTUDarmstadt: Judging Session (2024)[Wiki](https://2024.igem.wiki/tudarmstadt)https://static.igem.org/peertube/streaming-playlists/hls/bb969515-e056-4818-9db5-7cc505287502/2d6d4867-48b3-46b1-9283-cad5179ae7cc-master.m3u8https://video.igem.org/videos/embed/pawkSiSbr9tx7fTvxt22id1074032024-12-04T07:25:24.843ZYES2024 Judging SessionsNOhttps://video.igem.org/w/uq9zCgDemEo4ok9Ke3EADthttps://video.igem.org/lazy-static/thumbnails/8c0991e5-3936-47fd-8b5d-7e736f0db586.jpgXJU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/xju-china)https://static.igem.org/peertube/streaming-playlists/hls/e61f053a-08ee-4a35-951c-b23bc5522835/ec8c1ae5-ed4b-48ee-b8ea-e2e0f19c3f3e-master.m3u8https://video.igem.org/videos/embed/uq9zCgDemEo4ok9Ke3EADt989032024-12-04T07:12:58.353ZYES2024 Judging SessionsNOhttps://video.igem.org/w/kCxkbEwZXVf9E2eouMcacChttps://video.igem.org/lazy-static/thumbnails/2f21026c-0604-4d05-b7cc-20df6f90152e.jpgBNUZH-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/bnuzh-china)https://static.igem.org/peertube/streaming-playlists/hls/9ef7b7f1-378d-41e3-8d68-d2efc5c070ee/133c8500-e56d-407b-bbea-8226398c874d-master.m3u8https://video.igem.org/videos/embed/kCxkbEwZXVf9E2eouMcacC93903122024-12-04T07:19:30.826ZYES2024 Judging SessionsNOhttps://video.igem.org/w/kZS73PF6ngyf5tM3jmbnV7https://video.igem.org/lazy-static/thumbnails/21aacd4a-0c41-4c93-982b-72eec511f3d7.jpgBOKU-Vienna: Judging Session (2024)[Wiki](https://2024.igem.wiki/boku-vienna)https://static.igem.org/peertube/streaming-playlists/hls/a1f1e844-68e7-4aec-a4b0-4c1f4c21200c/47b09ed1-e39d-4705-ab61-27aa294af501-master.m3u8https://video.igem.org/videos/embed/kZS73PF6ngyf5tM3jmbnV7772042024-12-04T07:16:50.781ZYES2024 Judging SessionsNOhttps://video.igem.org/w/hviR6NAVpb3PE76tU1rVsfhttps://video.igem.org/lazy-static/thumbnails/eb7ad771-1071-4ff7-a051-0047f3e837c6.jpgJiangnan-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/jiangnan-china)https://static.igem.org/peertube/streaming-playlists/hls/85a9c945-a198-4127-a3eb-a6d92978fc0e/47c710c1-220f-4b74-af2a-72bdf1e503d4-master.m3u8https://video.igem.org/videos/embed/hviR6NAVpb3PE76tU1rVsf14550212024-12-04T07:39:14.865ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fkp2aWn1E6cUtCG6iej8B3https://video.igem.org/lazy-static/thumbnails/2afdfbd0-de5d-48b7-bf0d-5d1c04825616.jpgBIT-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/bit-china)https://static.igem.org/peertube/streaming-playlists/hls/74154273-2278-4016-8b92-07516fe7d16c/5ea82860-6534-4a77-9b43-f91fdd5d010e-master.m3u8https://video.igem.org/videos/embed/fkp2aWn1E6cUtCG6iej8B315070462024-12-04T07:41:42.786ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fY8JUCJ7Neix5CunnGPAuUhttps://video.igem.org/lazy-static/thumbnails/2ae2c0f4-8d7d-4a4e-98c2-e4c591064672.jpgOneonta: Judging Session (2024)[Wiki](https://2024.igem.wiki/oneonta)https://static.igem.org/peertube/streaming-playlists/hls/79365cb7-3ffe-4ae5-bd65-b10920380c8c/270fd0d1-bd7d-4897-a6d1-d9ffdb9c067c-master.m3u8https://video.igem.org/videos/embed/fY8JUCJ7Neix5CunnGPAuU14860112024-12-04T07:25:35.374ZYES2024 Judging SessionsNOhttps://video.igem.org/w/9rUreXkTV9XCyddQZbcU5Yhttps://video.igem.org/lazy-static/thumbnails/47dece59-c846-4c06-b20e-649da377b656.jpgSZSAIS-Shenzhen: Judging Session (2024)[Wiki](https://2024.igem.wiki/szsais-shenzhen)https://static.igem.org/peertube/streaming-playlists/hls/44670492-6db3-4cb3-82af-2dc71fd59d68/8e89c603-779a-4482-aa4c-e7ac7624d071-master.m3u8https://video.igem.org/videos/embed/9rUreXkTV9XCyddQZbcU5Y1529042024-12-04T08:18:41.794ZYES2024 Judging SessionsNOhttps://video.igem.org/w/kZSHMNYaTEjeXLxWv7WSaQhttps://video.igem.org/lazy-static/thumbnails/a4d0b11f-70e5-4c04-8f68-16df2b36e329.jpgTsinghua: Judging Session (2024)[Wiki](https://2024.igem.wiki/tsinghua)https://static.igem.org/peertube/streaming-playlists/hls/a1f2497c-95d4-4c08-a178-4ce13acab632/4a5d2037-8de1-416a-809c-401684b23469-master.m3u8https://video.igem.org/videos/embed/kZSHMNYaTEjeXLxWv7WSaQ155104062024-12-04T08:13:48.971ZYES2024 Judging SessionsNOhttps://video.igem.org/w/de79uZ2Qe2gFQAGDxmWmkjhttps://video.igem.org/lazy-static/thumbnails/91aa0209-7e21-41a3-9da6-aedfb7a84fc2.jpgVirginia: Judging Session (2024)[Wiki](https://2024.igem.wiki/virginia)https://static.igem.org/peertube/streaming-playlists/hls/63021ef1-977d-4609-bec3-6c0c936a4480/e3799c9d-41e2-4ebd-9c76-c2216da9769a-master.m3u8https://video.igem.org/videos/embed/de79uZ2Qe2gFQAGDxmWmkj1518062024-12-04T08:08:39.950ZYES2024 Judging SessionsNOhttps://video.igem.org/w/kwBd6SKxNjSXyQtN2VnTj9https://video.igem.org/lazy-static/thumbnails/a00d2332-6eaa-4542-921c-356e22fae2cc.jpgLZU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/lzu-china)https://static.igem.org/peertube/streaming-playlists/hls/9e23a54f-04c7-436f-a49f-e323c5e7a880/e81453b6-a24b-434a-9bc6-b94d4ad0942b-master.m3u8https://video.igem.org/videos/embed/kwBd6SKxNjSXyQtN2VnTj91378032024-12-04T08:08:47.795ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mQcyNbj5zocJ3H3RQEgCbMhttps://video.igem.org/lazy-static/thumbnails/615660f4-2d45-4b4d-b80c-d37e6ae0652d.jpgStanford: Judging Session (2024)[Wiki](https://2024.igem.wiki/stanford)https://static.igem.org/peertube/streaming-playlists/hls/a8b19a03-eb7a-4d48-96b1-76fe7ade4679/63d69001-015a-4230-a474-d61165b36c55-master.m3u8https://video.igem.org/videos/embed/mQcyNbj5zocJ3H3RQEgCbM15830652024-12-04T08:20:03.023ZYES2024 Judging SessionsNOhttps://video.igem.org/w/63TMkJysjub7kkyTTq1UW2https://video.igem.org/lazy-static/thumbnails/a3bb13f1-4d6a-47f1-9817-8efb074c31d0.jpgAalto-Helsinki: Judging Session (2024)[Wiki](https://2024.igem.wiki/aalto-helsinki)https://static.igem.org/peertube/streaming-playlists/hls/28e517ab-b559-4bf6-b276-1799177b77ad/06d99201-3f17-4fef-884d-bf4a5950d6df-master.m3u8https://video.igem.org/videos/embed/63TMkJysjub7kkyTTq1UW215100102024-12-04T08:52:39.013ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3THxQ66SREM1vLZjT1qGpihttps://video.igem.org/lazy-static/thumbnails/f153652a-20ba-48b6-a5db-752c07fe6d0c.jpgRadboud-University: Judging Session (2024)[Wiki](https://2024.igem.wiki/radboud-university)https://static.igem.org/peertube/streaming-playlists/hls/176ad09f-8310-4d0c-9e2f-6a81dc336287/fe5462da-d581-4925-8fb3-9a62b97de0ce-master.m3u8https://video.igem.org/videos/embed/3THxQ66SREM1vLZjT1qGpi1524042024-12-04T08:21:28.686ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3vfHfdYsFxtsdEogQ8PLxAhttps://video.igem.org/lazy-static/thumbnails/920b9f51-3eae-4ab8-8845-e944daca97ca.jpgGuangxi-U-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/guangxi-u-china)https://static.igem.org/peertube/streaming-playlists/hls/1447e9a6-e2cb-443d-8b2c-0edfe1ca32e0/6e5ed78f-7ac9-4f2a-9bb5-5b68e33f31af-master.m3u8https://video.igem.org/videos/embed/3vfHfdYsFxtsdEogQ8PLxA1528022024-12-04T08:46:17.704ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qZtTzz5gg17AQyotfqVUkDhttps://video.igem.org/lazy-static/thumbnails/eca132e9-54fa-472d-a144-d77454dbce20.jpgSMU-GDMU-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/smu-gdmu-china)https://static.igem.org/peertube/streaming-playlists/hls/ca61e8fd-4e1b-4ce3-8355-b92266ff2a0b/7caedcbc-0c38-46ee-be36-9352b5b39064-master.m3u8https://video.igem.org/videos/embed/qZtTzz5gg17AQyotfqVUkD1862062024-12-04T09:25:35.853ZYES2024 Judging SessionsNOhttps://video.igem.org/w/duwuxj8XCRJfooQDTba2Wbhttps://video.igem.org/lazy-static/thumbnails/8d1679b3-0d9e-4b5c-bfad-2fadca8361e0.jpgUCalgary: Judging Session (2024)[Wiki](https://2024.igem.wiki/ucalgary)https://static.igem.org/peertube/streaming-playlists/hls/652947e7-fe86-4284-8816-52862daa7f92/a0e5f514-580c-4cf8-8578-0d4a72afcab0-master.m3u8https://video.igem.org/videos/embed/duwuxj8XCRJfooQDTba2Wb15650262024-12-04T08:23:44.076ZYES2024 Judging SessionsNOhttps://video.igem.org/w/u31x8nMwEoZEoKAUD1dEpJhttps://video.igem.org/lazy-static/thumbnails/7774e050-f862-4a4c-b02a-d0a38bc6b0c0.jpgWashington: Judging Session (2024)[Wiki](https://2024.igem.wiki/washington)https://static.igem.org/peertube/streaming-playlists/hls/e307b364-d956-4daa-ac11-2b4e50c8c3b8/0e1d60d1-099a-466b-9f93-04a5a132bc98-master.m3u8https://video.igem.org/videos/embed/u31x8nMwEoZEoKAUD1dEpJ17040322024-12-04T08:28:17.903ZYES2024 Judging SessionsNOhttps://video.igem.org/w/c427EuXmHWgB2mtikfv3D5https://video.igem.org/lazy-static/thumbnails/fee5f184-0fc3-4196-947e-dfa1d718bd55.jpgLinkoping: Judging Session (2024)[Wiki](https://2024.igem.wiki/linkoping)https://static.igem.org/peertube/streaming-playlists/hls/59807192-d8b9-4348-9410-157e750dc2b6/a6ff6d8d-a626-4e3a-b478-96aeba50a8e3-master.m3u8https://video.igem.org/videos/embed/c427EuXmHWgB2mtikfv3D51512012024-12-04T09:00:59.453ZYES2024 Judging SessionsNOhttps://video.igem.org/w/xg7WCn5NGa2pSxpRoXvKSNhttps://video.igem.org/lazy-static/thumbnails/ed325323-de0b-4d5b-8b9a-379cc99cedf0.jpgNWU-CHINA-A: Judging Session (2024)[Wiki](https://2024.igem.wiki/nwu-china-a)https://static.igem.org/peertube/streaming-playlists/hls/fd27bbaa-ad70-4b37-82f3-ebc97cd84c06/144d3ff8-3e7e-4405-a5a1-f437a05b815e-master.m3u8https://video.igem.org/videos/embed/xg7WCn5NGa2pSxpRoXvKSN16130212024-12-04T09:10:04.121ZYES2024 Judging SessionsNOhttps://video.igem.org/w/h8rJxjFd4B6k2W5gn8ycWqhttps://video.igem.org/lazy-static/thumbnails/1f673a34-ebdc-4aea-9016-ad27f01b8c8a.jpgSDU-Denmark: Judging Session (2024)[Wiki](https://2024.igem.wiki/sdu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/829c48a3-ea9b-42be-9676-6894c6aedf30/b098b370-6e5d-4c7c-9092-826b859b9d4d-master.m3u8https://video.igem.org/videos/embed/h8rJxjFd4B6k2W5gn8ycWq1454072024-12-04T09:14:47.384ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gMMTaYuXQKNiPMe15bodAbhttps://video.igem.org/lazy-static/thumbnails/5c1f4959-84ea-4b95-b492-e5570fb1af96.jpgCSU-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/csu-china)https://static.igem.org/peertube/streaming-playlists/hls/7fddd354-6761-4925-8fec-3504b68b9d7e/0a2c17d5-1d5b-4f43-b962-bc9b04f94118-master.m3u8https://video.igem.org/videos/embed/gMMTaYuXQKNiPMe15bodAb16060162024-12-04T09:19:32.224ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1rAJHUA39rmDT5Gb2Q49FWhttps://video.igem.org/lazy-static/thumbnails/aeebb0d2-0d38-4a79-9d97-7f02cc0fce86.jpgSJTU-BioX-Shanghai: Judging Session (2024)[Wiki](https://2024.igem.wiki/sjtu-biox-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/0393005e-34d5-4bb0-90f8-320cd2cee1c4/678dffc6-dc36-40a8-90fc-8b13d7aaa04b-master.m3u8https://video.igem.org/videos/embed/1rAJHUA39rmDT5Gb2Q49FW1508072024-12-04T08:53:58.282ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wJC5EwNUJkQJBEKSWnuqnMhttps://video.igem.org/lazy-static/thumbnails/7b495170-ebdd-42a3-9159-f58668dc9cce.jpgthessaloniki: Judging Session (2024)[Wiki](https://2024.igem.wiki/thessaloniki)https://static.igem.org/peertube/streaming-playlists/hls/f8e5a22c-48b3-43af-961b-87c7bbf9a6bf/3f962fef-e371-4fc5-9609-af8117066fb8-master.m3u8https://video.igem.org/videos/embed/wJC5EwNUJkQJBEKSWnuqnM15140172024-12-04T08:57:03.305ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8wj6gyW6ibxpijRmpCqS3Shttps://video.igem.org/lazy-static/thumbnails/1b6bd49e-a17c-4f88-b6de-13f1cd815b49.jpgUniMuenster: Judging Session (2024)[Wiki](https://2024.igem.wiki/unimuenster)https://static.igem.org/peertube/streaming-playlists/hls/3ceb6ebe-68a1-425b-a24f-a50253074c8e/71ab2598-2fc7-42a6-9f65-8b43288fcd7c-master.m3u8https://video.igem.org/videos/embed/8wj6gyW6ibxpijRmpCqS3S15810132024-12-04T09:33:45.270ZYES2024 Judging SessionsNOhttps://video.igem.org/w/rMLDhz2vSKwFviXoWJaxfUhttps://video.igem.org/lazy-static/thumbnails/fe7f39f2-277f-4229-9e55-fca7f3c81a4a.jpgNJTECH-CHINA-A: Judging Session (2024)[Wiki](https://2024.igem.wiki/njtech-china-a)https://static.igem.org/peertube/streaming-playlists/hls/d0d872c2-f9c3-4e7d-9657-49fdaa36e484/98d885c6-ee65-4ab9-a3fe-b6949f0f979f-master.m3u8https://video.igem.org/videos/embed/rMLDhz2vSKwFviXoWJaxfU14520242024-12-04T09:35:04.145ZYES2024 Judging SessionsNOhttps://video.igem.org/w/69Wz973uqn3SD64TZqSdDihttps://video.igem.org/lazy-static/thumbnails/6c58f918-c132-4578-bbc7-3c5cd9b0f247.jpgSCUT-China-A: Judging Session (2024)[Wiki](https://2024.igem.wiki/scut-china-a)https://static.igem.org/peertube/streaming-playlists/hls/29bd4636-324d-4b61-b79b-98a4204cb953/6873d467-42e7-4e2f-b927-d01c9595525e-master.m3u8https://video.igem.org/videos/embed/69Wz973uqn3SD64TZqSdDi1477022024-12-04T10:51:05.051ZYES2024 Judging SessionsNOhttps://video.igem.org/w/kUGayAFN9PcxiRzY63q9sLhttps://video.igem.org/lazy-static/thumbnails/632e2b47-7a6a-4fc4-8991-1bc0ce8b0b7f.jpgGeorgiaState-SWJTU: Judging Session (2024)[Wiki](https://2024.igem.wiki/georgiastate-swjtu)https://static.igem.org/peertube/streaming-playlists/hls/a1391024-6e20-42f5-8a47-136ca8e010b0/bc9803b7-6bc6-4adc-bf75-fd4c5c9c7cdf-master.m3u8https://video.igem.org/videos/embed/kUGayAFN9PcxiRzY63q9sL15520142024-12-04T09:21:55.958ZYES2024 Judging SessionsNOhttps://video.igem.org/w/hYW3hVo72DcaipK2Biayjshttps://video.igem.org/lazy-static/thumbnails/6445f11c-f18b-4478-9b50-7a659e3813bf.jpgUSP-Brazil: Judging Session (2024)[Wiki](https://2024.igem.wiki/usp-brazil)https://static.igem.org/peertube/streaming-playlists/hls/89852c36-e6cd-4ebe-8736-991fa3678dc6/57fa2366-ee3e-4c37-856d-72dd1fced266-master.m3u8https://video.igem.org/videos/embed/hYW3hVo72DcaipK2Biayjs1544052024-12-04T09:16:55.749ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ihQe67KY352sw637dVxXqghttps://video.igem.org/lazy-static/thumbnails/3ce3ae2c-0395-44d9-83e1-e6f4bcf8e915.jpgUBC-Vancouver: Judging Session (2024)[Wiki](https://2024.igem.wiki/ubc-vancouver)https://static.igem.org/peertube/streaming-playlists/hls/8c04fa47-ccd2-49d9-9f42-531bd7d1f663/63f6c2d6-c523-4b92-b5c0-91c7b2e243ee-master.m3u8https://video.igem.org/videos/embed/ihQe67KY352sw637dVxXqg15660392024-12-04T09:25:49.887ZYES2024 Judging SessionsNOhttps://video.igem.org/w/p29sEoKQ1Uanb8UtQ5Xjzrhttps://video.igem.org/lazy-static/thumbnails/eca1a390-119a-4a8f-98ea-fefe2dd817ce.jpgBUCT: Judging Session (2024)[Wiki](https://2024.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/ba6b257b-a792-4937-83a8-d1012142e6b3/4beab4fc-b87c-4568-9a25-e40dfd15a963-master.m3u8https://video.igem.org/videos/embed/p29sEoKQ1Uanb8UtQ5Xjzr15830282024-12-04T09:56:00.854ZYES2024 Judging SessionsNOhttps://video.igem.org/w/dGkUoKXy5pbypMBnBjQAS5https://video.igem.org/lazy-static/thumbnails/c27b53b1-3be1-4675-9c56-66184387ec98.jpgUFlorida: Judging Session (2024)[Wiki](https://2024.igem.wiki/uflorida)https://static.igem.org/peertube/streaming-playlists/hls/66cfae3a-248a-4934-ad31-db20daf46760/60942fc9-16bd-49a3-bc78-49208268e7e0-master.m3u8https://video.igem.org/videos/embed/dGkUoKXy5pbypMBnBjQAS515040112024-12-04T09:10:08.731ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1vPAxWToGjPLt96SVrKJsUhttps://video.igem.org/lazy-static/thumbnails/a11fe66d-bcb6-4a69-8755-de32c328c71f.jpgXJTLU-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/xjtlu-china)https://static.igem.org/peertube/streaming-playlists/hls/0429e6b6-a497-471c-8c59-fb4823438e68/440e50d7-8a12-40ed-a648-b4dcac9d8a73-master.m3u8https://video.igem.org/videos/embed/1vPAxWToGjPLt96SVrKJsU1753092024-12-04T09:59:57.455ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1VifQzbjWa7D8HNvUdFDwLhttps://video.igem.org/lazy-static/thumbnails/3019c7d4-954d-4150-96c7-491f36a6ca8e.jpgUSAFA: Judging Session (2024)[Wiki](https://2024.igem.wiki/usafa)https://static.igem.org/peertube/streaming-playlists/hls/07710dd8-8fee-4ca8-8546-285cab3895c4/5f1ce6ee-4365-41f6-a50b-08e675504103-master.m3u8https://video.igem.org/videos/embed/1VifQzbjWa7D8HNvUdFDwL1619002024-12-04T09:20:35.841ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cgVCmNRz5PprtCoq6TGeXHhttps://video.igem.org/lazy-static/thumbnails/9178c293-e6a7-4ca2-b739-6938f77946c7.jpgHKUST: Judging Session (2024)[Wiki](https://2024.igem.wiki/hkust)https://static.igem.org/peertube/streaming-playlists/hls/5b4dbb05-0e69-422c-8cf0-c084b154df03/00c8941f-9853-4a19-9fcd-c8bcf4f5f85f-master.m3u8https://video.igem.org/videos/embed/cgVCmNRz5PprtCoq6TGeXH15470152024-12-04T11:05:14.596ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jyppRaoB7EBreHEfEMuXkHhttps://video.igem.org/lazy-static/thumbnails/5eabb38f-ea11-4c01-9a5b-b5926851f94b.jpgAthens: Judging Session (2024)[Wiki](https://2024.igem.wiki/athens)https://static.igem.org/peertube/streaming-playlists/hls/964ab962-c557-4465-afe4-4d8efb4852a3/e3f235f4-cb7e-4389-ab80-08acec44fce3-master.m3u8https://video.igem.org/videos/embed/jyppRaoB7EBreHEfEMuXkH12660202024-12-04T10:05:01.648ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1J9gJP4PPM61jWnkEyw8Tohttps://video.igem.org/lazy-static/thumbnails/74ec734b-7be2-48a5-b07f-5bf9453348af.jpgTJUSLS-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/tjusls-china)https://static.igem.org/peertube/streaming-playlists/hls/05e255f2-f923-4299-95a4-a0344e30e550/2bd18419-a860-46ea-bd6f-910afb2195f6-master.m3u8https://video.igem.org/videos/embed/1J9gJP4PPM61jWnkEyw8To13580172024-12-04T10:13:13.102ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5mu6y5qtjcYAcGCpUAnGhphttps://video.igem.org/lazy-static/thumbnails/f6363fc5-2ae1-4109-af62-6c54b3e04bb8.jpgConcordia-Montreal: Judging Session (2024)[Wiki](https://2024.igem.wiki/concordia-montreal)https://static.igem.org/peertube/streaming-playlists/hls/2340bea1-c9b7-4a49-925c-fa7b54aa7eff/2b446116-aaff-424d-9753-516fbd2bdda7-master.m3u8https://video.igem.org/videos/embed/5mu6y5qtjcYAcGCpUAnGhp1356062024-12-04T10:29:44.935ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7tzzGBPGr2YuM5WGCR6gf8https://video.igem.org/lazy-static/thumbnails/ef42a406-5e43-452c-805a-2780bac6cd6b.jpgUManitoba: Judging Session (2024)[Wiki](https://2024.igem.wiki/umanitoba)https://static.igem.org/peertube/streaming-playlists/hls/34709bda-6158-49aa-abca-eaaa65571ca7/a4a3665a-f8b0-43f1-ac75-6aade3fc75d7-master.m3u8https://video.igem.org/videos/embed/7tzzGBPGr2YuM5WGCR6gf815130112024-12-04T10:27:07.091ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fTkwRkFi5L51TEWDTvyhtnhttps://video.igem.org/lazy-static/thumbnails/4fed2593-0c05-4c5d-b7b6-b2a86f9eb9a5.jpgSorbonne-U-Paris: Judging Session (2024)[Wiki](https://2024.igem.wiki/sorbonne-u-paris)https://static.igem.org/peertube/streaming-playlists/hls/788ae914-f3ea-427a-8489-1ba23519b963/a3fc46f0-7b7e-4483-88da-4e6cbc0c1ca8-master.m3u8https://video.igem.org/videos/embed/fTkwRkFi5L51TEWDTvyhtn14140162024-12-04T09:50:54.518ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qkqohEByjPcM3P3iuL212thttps://video.igem.org/lazy-static/thumbnails/fa1dc184-2639-4209-8b7e-8bd514e7834a.jpgHUST-UEVE-UPSaclay: Judging Session (2024)[Wiki](https://2024.igem.wiki/hust-ueve-upsaclay)https://static.igem.org/peertube/streaming-playlists/hls/c5117c9f-5c7e-4b74-a5a1-4502e9c634fd/65a1ff0b-de2d-4276-b26e-d323f685166e-master.m3u8https://video.igem.org/videos/embed/qkqohEByjPcM3P3iuL212t1539092024-12-04T09:52:21.476ZYES2024 Judging SessionsNOhttps://video.igem.org/w/tfu9ZUJAsE5WgvmAzrAvprhttps://video.igem.org/lazy-static/thumbnails/aed5eaa1-146d-4421-9700-5cc96f4bce04.jpgFudan: Judging Session (2024)[Wiki](https://2024.igem.wiki/fudan)https://static.igem.org/peertube/streaming-playlists/hls/dcac8200-ca98-4fd3-aa1d-f6517fa2ad63/584e864f-9603-4f02-92db-562a7f3fa303-master.m3u8https://video.igem.org/videos/embed/tfu9ZUJAsE5WgvmAzrAvpr14670652024-12-04T10:06:05.142ZYES2024 Judging SessionsNOhttps://video.igem.org/w/o1y8zpHtvDEVaxrSU5JJFphttps://video.igem.org/lazy-static/thumbnails/7be1fadb-40a4-49bb-b023-3155e79cff2c.jpgMadrid-UCM: Judging Session (2024)[Wiki](https://2024.igem.wiki/madrid-ucm)https://static.igem.org/peertube/streaming-playlists/hls/b23cda0a-38ce-4b39-b271-6cbfd6245025/f6463a1d-e955-42c5-a603-95e4e00d90d1-master.m3u8https://video.igem.org/videos/embed/o1y8zpHtvDEVaxrSU5JJFp1507092024-12-04T10:51:10.771ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1hK8Us5mJisSETQKWnyws8https://video.igem.org/lazy-static/thumbnails/e968b6cd-d5e8-40a6-965a-4ebd5559e218.jpgMichigan: Judging Session (2024)[Wiki](https://2024.igem.wiki/michigan)https://static.igem.org/peertube/streaming-playlists/hls/02567be7-46d2-41bd-8fcc-a5cf6eaa52f3/8fc9c042-fc66-4465-ae79-50b4db10e446-master.m3u8https://video.igem.org/videos/embed/1hK8Us5mJisSETQKWnyws81538092024-12-04T10:19:20.439ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cVHDycfR5hvFfPR7w4gmM5https://video.igem.org/lazy-static/thumbnails/51cffab5-528c-4481-91ca-c5ed2a5911e4.jpgTecMonterreyGDL: Judging Session (2024)[Wiki](https://2024.igem.wiki/tecmonterreygdl)https://static.igem.org/peertube/streaming-playlists/hls/60949c7b-2b93-4b02-8d4d-4f4530f9104e/d7a59af3-5f60-411a-94da-ab1c5a7b8123-master.m3u8https://video.igem.org/videos/embed/cVHDycfR5hvFfPR7w4gmM51525022024-12-04T10:37:10.620ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5um6y9oLzDi5kFWYczwojBhttps://video.igem.org/lazy-static/thumbnails/79d5fe4f-eb05-468a-8ac6-c54949b80e71.jpgHannover: Judging Session (2024)[Wiki](https://2024.igem.wiki/hannover)https://static.igem.org/peertube/streaming-playlists/hls/2459c3c0-55df-4df5-920c-14bf867924ef/5d19b2b1-6112-4323-8216-f598e8aa0ad7-master.m3u8https://video.igem.org/videos/embed/5um6y9oLzDi5kFWYczwojB1510032024-12-04T10:15:55.491ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mnihQTjA7pFM8ZTmioVixYhttps://video.igem.org/lazy-static/thumbnails/0c42673f-baba-46a5-8bbf-017fa82d99df.jpgCUG-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/cug-china)https://static.igem.org/peertube/streaming-playlists/hls/a4f00c46-af83-4935-bd08-eb3d143ddf6a/19dd5614-19a2-4c24-899c-3fa0f023c354-master.m3u8https://video.igem.org/videos/embed/mnihQTjA7pFM8ZTmioVixY1619082024-12-04T10:17:00.598ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7FhoBYMMXC4Xq7BdH1jS2thttps://video.igem.org/lazy-static/thumbnails/11966023-974a-478b-b222-5869e7f1fd83.jpgUni-Padua-IT: Judging Session (2024)[Wiki](https://2024.igem.wiki/uni-padua-it)https://static.igem.org/peertube/streaming-playlists/hls/3612f08f-8308-469a-87c4-732cc431234d/03460835-ecfa-43aa-91ae-f2856c488994-master.m3u8https://video.igem.org/videos/embed/7FhoBYMMXC4Xq7BdH1jS2t17820342024-12-04T10:24:27.732ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6woQy39Yk2aXcNG7j2c1bmhttps://video.igem.org/lazy-static/thumbnails/8e92f6f1-d1bd-43e9-8078-d88ca106c718.jpgEPFL: Judging Session (2024)[Wiki](https://2024.igem.wiki/epfl)https://static.igem.org/peertube/streaming-playlists/hls/2cbc148c-8026-4132-a909-568ec40b7de0/e6a7da0d-956a-458f-81ae-ac48896b45f6-master.m3u8https://video.igem.org/videos/embed/6woQy39Yk2aXcNG7j2c1bm14420132024-12-04T10:26:23.582ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mbF4LZTCNigpwR5C9o5kHGhttps://video.igem.org/lazy-static/thumbnails/39279bba-dd0f-465b-84e1-e330c760d6a2.jpgWaseda-Tokyo: Judging Session (2024)[Wiki](https://2024.igem.wiki/waseda-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/a374491e-9cd3-40bf-bb17-62032154041e/30382720-4fbd-4205-9fb1-1b891fa32a7f-master.m3u8https://video.igem.org/videos/embed/mbF4LZTCNigpwR5C9o5kHG154801292024-12-04T11:00:08.931ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8C1eVyKnX7jzaZAziPuDCnhttps://video.igem.org/lazy-static/thumbnails/7a4b1b90-0f5c-4a05-9aa8-84eb3530508f.jpgRochester: Judging Session (2024)[Wiki](https://2024.igem.wiki/rochester)https://static.igem.org/peertube/streaming-playlists/hls/3db6e4ef-b553-4906-a0f6-fe603450caa1/fd52516a-8028-4808-8e4c-f91ef495a401-master.m3u8https://video.igem.org/videos/embed/8C1eVyKnX7jzaZAziPuDCn1590072024-12-04T10:12:08.135ZYES2024 Judging SessionsNOhttps://video.igem.org/w/m8EddSLs4ChsqsVqcWWy9Xhttps://video.igem.org/lazy-static/thumbnails/81881aec-e67b-46d2-931c-310ffe2ae3ed.jpgNKU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/nku-china)https://static.igem.org/peertube/streaming-playlists/hls/a308871c-ec5d-489c-9572-f5d7ddd7aeb7/350b652b-ff13-4910-bce8-94427f518c0b-master.m3u8https://video.igem.org/videos/embed/m8EddSLs4ChsqsVqcWWy9X1477072024-12-04T11:40:18.464ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jyFV7EqwCVJg29zSjjXEHDhttps://video.igem.org/lazy-static/thumbnails/634f7ede-f3a4-414d-acf8-1de00ac9715c.jpgSMU: Judging Session (2024)[Wiki](https://2024.igem.wiki/smu)https://static.igem.org/peertube/streaming-playlists/hls/9654e53e-c99d-4101-adcf-5f16bb181cbf/30c4e96c-fb68-4730-b7e1-521335cdc3da-master.m3u8https://video.igem.org/videos/embed/jyFV7EqwCVJg29zSjjXEHD1484012024-12-04T11:40:56.263ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ddJBZHYvvWbBY3DR2ZdY2ehttps://video.igem.org/lazy-static/thumbnails/28db9c4a-5f17-4e45-9045-571db1e1c659.jpgHBUT-Wuhan: Judging Session (2024)[Wiki](https://2024.igem.wiki/hbut-wuhan)https://static.igem.org/peertube/streaming-playlists/hls/62f4dae4-10a6-43b9-b8da-c7f54f51fcf7/e3453c81-b2d3-4e81-9e13-2545b61131e7-master.m3u8https://video.igem.org/videos/embed/ddJBZHYvvWbBY3DR2ZdY2e1579032024-12-04T12:49:57.409ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jFLSgdCm45WVuVMt9eCSXGhttps://video.igem.org/lazy-static/thumbnails/281acf91-8bb6-4c7f-a1b6-4fcf9f8dc97a.jpgZJUT-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/zjut-china)https://static.igem.org/peertube/streaming-playlists/hls/97522726-6ac3-4ae5-83f1-b1b12c927456/cb461f2c-5701-4b1f-99af-1ddf448c828c-master.m3u8https://video.igem.org/videos/embed/jFLSgdCm45WVuVMt9eCSXG15060262024-12-04T12:34:03.204ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2kJdP4Bkrgqa1oS3qr6LzHhttps://video.igem.org/lazy-static/thumbnails/c09d6bae-bce1-4bf4-b7fa-69284a59aa61.jpgNAU-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/nau-china)https://static.igem.org/peertube/streaming-playlists/hls/0ada4a32-adaa-42fc-bf61-f67873c0ddab/6eb749b3-2124-4fe1-8dd9-bf9395ffd777-master.m3u8https://video.igem.org/videos/embed/2kJdP4Bkrgqa1oS3qr6LzH14580272024-12-04T12:50:19.854ZYES2024 Judging SessionsNOhttps://video.igem.org/w/x4eA59G3XDnzNQq8qTgcJLhttps://video.igem.org/lazy-static/thumbnails/18ab69c5-e90a-4244-bf89-228e150a9b93.jpgOUC-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/ouc-china)https://static.igem.org/peertube/streaming-playlists/hls/fb7ee740-76bf-4479-b98e-6205dcfd8384/6140eda3-ef4c-4c76-9892-3453f6549814-master.m3u8https://video.igem.org/videos/embed/x4eA59G3XDnzNQq8qTgcJL1566062024-12-04T12:29:52.991ZYES2024 Judging SessionsNOhttps://video.igem.org/w/x6zN4LsniK5bLmbahKs4g1https://video.igem.org/lazy-static/thumbnails/1bdb5343-41b4-4de0-9188-8d956c433b3d.jpgMcMasterU: Judging Session (2024)[Wiki](https://2024.igem.wiki/mcmasteru)https://static.igem.org/peertube/streaming-playlists/hls/fbd2d7ff-51d1-49f7-919d-5fce433823d2/7c2504e6-040b-47a0-81d2-f4e732471442-master.m3u8https://video.igem.org/videos/embed/x6zN4LsniK5bLmbahKs4g114460102024-12-04T12:06:24.166ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jkibVoTxcwqXkxDbXX22xrhttps://video.igem.org/lazy-static/thumbnails/77b146f1-55e8-4323-8d70-752e92f21a79.jpgVilnius-Lithuania: Judging Session (2024)[Wiki](https://2024.igem.wiki/vilnius-lithuania)https://static.igem.org/peertube/streaming-playlists/hls/9476385c-e5e1-44c9-a5fe-b8a5ce9c6e3b/f6d0ac0f-ba18-4320-8649-315f418d3deb-master.m3u8https://video.igem.org/videos/embed/jkibVoTxcwqXkxDbXX22xr153201072024-12-04T10:56:22.206ZYES2024 Judging SessionsNOhttps://video.igem.org/w/139yLdh8MJERRk1yem4QH9https://video.igem.org/lazy-static/thumbnails/9ba61614-81c3-4b01-90ee-5fd566b0493f.jpgNTU-Singapore: Judging Session (2024)[Wiki](https://2024.igem.wiki/ntu-singapore)https://static.igem.org/peertube/streaming-playlists/hls/004cc40d-3762-4211-9135-2308a90c95ea/ef6d858f-68d8-4912-811e-959cae9330a2-master.m3u8https://video.igem.org/videos/embed/139yLdh8MJERRk1yem4QH91370082024-12-04T10:50:47.641ZYES2024 Judging SessionsNOhttps://video.igem.org/w/83AWyk5QkkhfD3KhQKS7dLhttps://video.igem.org/lazy-static/thumbnails/3376b492-1c60-4813-9a31-0f7ddf244342.jpgSDU-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/sdu-china)https://static.igem.org/peertube/streaming-playlists/hls/390cfdb8-8e41-4237-b2ef-a60b8685c0bc/cf4d8063-93be-4e19-b166-5e166e1b7eb1-master.m3u8https://video.igem.org/videos/embed/83AWyk5QkkhfD3KhQKS7dL1678022024-12-04T11:14:00.695ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ePVXPNwPTm8ZyuCNPaPNEDhttps://video.igem.org/lazy-static/thumbnails/71f8b5f3-99c3-425b-9d4a-96f0e7bb0ef8.jpgImperial-College: Judging Session (2024)[Wiki](https://2024.igem.wiki/imperial-college)https://static.igem.org/peertube/streaming-playlists/hls/6ff803ec-e27d-4daa-822e-aeb1ed157201/3e38a4dd-5a2b-4160-96a2-448d45d49ad3-master.m3u8https://video.igem.org/videos/embed/ePVXPNwPTm8ZyuCNPaPNED15220122024-12-04T11:06:13.681ZYES2024 Judging SessionsNOhttps://video.igem.org/w/sBAVpwn84AircSPUYNDE2phttps://video.igem.org/lazy-static/thumbnails/f6589e8b-005f-4e07-b712-ab0f55f0df2a.jpgTec-Monterrey: Judging Session (2024)[Wiki](https://2024.igem.wiki/tec-monterrey)https://static.igem.org/peertube/streaming-playlists/hls/d7862866-255c-4f5d-a610-11aedf4c9dd1/4e143513-4def-4915-acd8-4f5e2c0ae95c-master.m3u8https://video.igem.org/videos/embed/sBAVpwn84AircSPUYNDE2p15050142024-12-04T11:38:32.742ZYES2024 Judging SessionsNOhttps://video.igem.org/w/82sLvKYpaSiTb88AMw4AGdhttps://video.igem.org/lazy-static/thumbnails/16a91405-51ee-4ddf-a132-1d73ce3368f8.jpgOhioState: Judging Session (2024)[Wiki](https://2024.igem.wiki/ohiostate)https://static.igem.org/peertube/streaming-playlists/hls/38e435de-9257-45c9-a457-33cb3df0285c/b38c263b-98d0-4c07-8600-45358259d428-master.m3u8https://video.igem.org/videos/embed/82sLvKYpaSiTb88AMw4AGd1573002024-12-04T11:53:24.949ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qpkjgDNWdPYCzUv95uzxShhttps://video.igem.org/lazy-static/thumbnails/e6e6abd7-4a74-4cc1-a709-9abb2009a321.jpgMichiganState: Judging Session (2024)[Wiki](https://2024.igem.wiki/michiganstate)https://static.igem.org/peertube/streaming-playlists/hls/c59d567c-ad82-4447-b2a0-7564182f56a8/c7f9de6f-c983-4897-9a65-21dd66e682a7-master.m3u8https://video.igem.org/videos/embed/qpkjgDNWdPYCzUv95uzxSh1657032024-12-04T11:52:23.841ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2aMjPksjXCu6vkckYo3asNhttps://video.igem.org/lazy-static/thumbnails/219b8fb0-0aa8-409e-9d7d-c334a6cb2680.jpgMSP-Maastricht: Judging Session (2024)[Wiki](https://2024.igem.wiki/msp-maastricht)https://static.igem.org/peertube/streaming-playlists/hls/0976c3c6-e795-4c92-9ed2-3279d875ae46/513e0f65-db99-48a1-91c9-996854bf0d91-master.m3u8https://video.igem.org/videos/embed/2aMjPksjXCu6vkckYo3asN1547082024-12-04T11:26:12.455ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wvdreNsRD1vQZkykM16QiEhttps://video.igem.org/lazy-static/thumbnails/8b6cf18c-df61-480f-aca0-0f90c332f6af.jpgWarwick: Judging Session (2024)[Wiki](https://2024.igem.wiki/warwick)https://static.igem.org/peertube/streaming-playlists/hls/f706647e-7ef2-4110-afda-4434948ab668/90c70299-ebba-419c-8284-d7d3ece34a2b-master.m3u8https://video.igem.org/videos/embed/wvdreNsRD1vQZkykM16QiE1777032024-12-04T11:12:30.896ZYES2024 Judging SessionsNOhttps://video.igem.org/w/tQpbtrwkBTtLpRWNQtDuZGhttps://video.igem.org/lazy-static/thumbnails/b693f9a2-fb4f-495c-9411-b08e68f9eb9e.jpgOhioState: Judging Session (2024)[Wiki](https://2024.igem.wiki/ohiostate)https://static.igem.org/peertube/streaming-playlists/hls/e168baf5-dbdd-4b2a-a0b0-5b2bbfd5c8fa/0b38f335-d911-41ec-8767-dedee397da3c-master.m3u8https://video.igem.org/videos/embed/tQpbtrwkBTtLpRWNQtDuZG1573012024-12-04T11:34:52.193ZYES2024 Judging SessionsNOhttps://video.igem.org/w/tK3mq9xhWusGnMkxwqevzxhttps://video.igem.org/lazy-static/thumbnails/05433252-3bf5-4c76-8358-2527e64e11c4.jpgMexico: Judging Session (2024)[Wiki](https://2024.igem.wiki/mexico)https://static.igem.org/peertube/streaming-playlists/hls/e0a92ce7-52f5-45a1-b1ae-c56321830335/db5e458f-43c7-4369-a042-ab99405a47a5-master.m3u8https://video.igem.org/videos/embed/tK3mq9xhWusGnMkxwqevzx1385042024-12-04T10:03:37.468ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ueyWBLDiHZtkCktpUohztAhttps://video.igem.org/lazy-static/thumbnails/3f9e95b5-a474-4cf0-ad39-395103c75ef9.jpgUCSC: Judging Session (2024)[Wiki](https://2024.igem.wiki/ucsc)https://static.igem.org/peertube/streaming-playlists/hls/e4a4da3e-5592-4569-92a9-d16afce5f884/cb395e14-50a0-4a25-85d9-01d9aa47e44c-master.m3u8https://video.igem.org/videos/embed/ueyWBLDiHZtkCktpUohztA15700102024-12-04T10:23:06.895ZYES2024 Judging SessionsNOhttps://video.igem.org/w/eQ6Yzs6bMHzdhMbetcYvAmhttps://video.igem.org/lazy-static/thumbnails/d59e7657-f2a0-4c53-9702-6b604ab2f4a6.jpgIISc-Software: Judging Session (2024)[Wiki](https://2024.igem.wiki/iisc-software)https://static.igem.org/peertube/streaming-playlists/hls/6ffe2fa0-dd69-4549-afa7-519fffa8646c/900c6128-b03c-427b-af55-1bf9fb66f873-master.m3u8https://video.igem.org/videos/embed/eQ6Yzs6bMHzdhMbetcYvAm14290142024-12-04T10:18:46.363ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5aSSwM4sMY3wgrduSAPjs3https://video.igem.org/lazy-static/thumbnails/3e30a336-051a-42f0-b0c8-8ed69a76924c.jpgCSMU-NCHU-Taiwan: Judging Session (2024)[Wiki](https://2024.igem.wiki/csmu-nchu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/21c5995c-c61e-4ad0-a150-c93897d08926/ce87c403-1d7d-4851-b033-3808a7bd699b-master.m3u8https://video.igem.org/videos/embed/5aSSwM4sMY3wgrduSAPjs31473042024-12-04T12:22:35.834ZYES2024 Judging SessionsNOhttps://video.igem.org/w/m7DW5i2zs1Tg1frfzj2qo2https://video.igem.org/lazy-static/thumbnails/46dd27bc-8064-4a04-9dc0-f0a468ccd653.jpgTUM-Straubing: Judging Session (2024)[Wiki](https://2024.igem.wiki/tum-straubing)https://static.igem.org/peertube/streaming-playlists/hls/a2e49cc8-aa4a-4ce7-873b-9df6f3a96f45/7942f4b5-f9fa-4b06-853e-c62177ae175f-master.m3u8https://video.igem.org/videos/embed/m7DW5i2zs1Tg1frfzj2qo216650152024-12-04T12:51:20.621ZYES2024 Judging SessionsNOhttps://video.igem.org/w/9DaA83makNiqWb2BbjChXshttps://video.igem.org/lazy-static/thumbnails/a790b2c0-7b2a-4e90-a351-1c3ac2a17196.jpgCornell: Judging Session (2024)[Wiki](https://2024.igem.wiki/cornell)https://static.igem.org/peertube/streaming-playlists/hls/45f989ab-44bc-49a2-8b1c-0d9a0def4310/4ccd510f-a2ef-486e-89a5-e1f1e3383fed-master.m3u8https://video.igem.org/videos/embed/9DaA83makNiqWb2BbjChXs15540252024-12-04T12:31:37.724ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7hfzZ3DkjPhtmpp66NQnRghttps://video.igem.org/lazy-static/thumbnails/b4d8f950-d856-4a7b-a48f-e75999df4000.jpgRio-UFRJ-Brazil: Judging Session (2024)[Wiki](https://2024.igem.wiki/rio-ufrj-brazil)https://static.igem.org/peertube/streaming-playlists/hls/32dbb89e-e3ec-4952-bd9f-b798f1b4775d/e920f1f7-44f0-46a2-b774-6a943a71ef3a-master.m3u8https://video.igem.org/videos/embed/7hfzZ3DkjPhtmpp66NQnRg1537022024-12-04T12:49:40.162ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vYucjQbmah6SqJ7gRCCoFfhttps://video.igem.org/lazy-static/thumbnails/176314ea-940d-4350-8694-9fc1deb837d4.jpgHiZJU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/hizju-china)https://static.igem.org/peertube/streaming-playlists/hls/f2bc0c56-f14b-45c1-8c1c-835267df783c/8f8f5249-4936-463e-8786-a1c52a543be1-master.m3u8https://video.igem.org/videos/embed/vYucjQbmah6SqJ7gRCCoFf15580492024-12-04T13:02:43.467ZYES2024 Judging SessionsNOhttps://video.igem.org/w/94ajA88isyTzFyh2NWtJDahttps://video.igem.org/lazy-static/thumbnails/24e45624-c4d7-4d0b-9def-55c18f3bd157.jpgBUAPMX: Judging Session (2024)[Wiki](https://2024.igem.wiki/buapmx)https://static.igem.org/peertube/streaming-playlists/hls/413a15a4-bcf7-498c-9743-2efe4be256eb/c2007e2f-ff98-4b91-bc3b-c19d31012395-master.m3u8https://video.igem.org/videos/embed/94ajA88isyTzFyh2NWtJDa1091072024-12-04T11:05:09.336ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jVST9fn7Lmc4ofBz3KJ8HBhttps://video.igem.org/lazy-static/thumbnails/2514a3bf-59a6-4331-a009-d6d39f6ecb96.jpgULethbridge: Judging Session (2024)[Wiki](https://2024.igem.wiki/ulethbridge)https://static.igem.org/peertube/streaming-playlists/hls/994a45ce-fff3-4a10-bc2a-e67e216cd8a9/b2fecbc2-2f88-4063-be40-dd24e9a1b80f-master.m3u8https://video.igem.org/videos/embed/jVST9fn7Lmc4ofBz3KJ8HB1831042024-12-04T10:16:46.517ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3PS1zU87THreeHwaDQWPaohttps://video.igem.org/lazy-static/thumbnails/45eebcd1-af33-4f36-aacc-80f6a2f26272.jpgWilliam-and-Mary: Judging Session (2024)[Wiki](https://2024.igem.wiki/william-and-mary)https://static.igem.org/peertube/streaming-playlists/hls/16e10de7-94dc-4d1f-99ea-51c7cd835d8c/11edd350-d747-407b-aa52-84f38277c64c-master.m3u8https://video.igem.org/videos/embed/3PS1zU87THreeHwaDQWPao16340412024-12-04T11:03:06.059ZYES2024 Judging SessionsNOhttps://video.igem.org/w/kJ3n3qDKDRRzwcnRtC5vRNhttps://video.igem.org/lazy-static/thumbnails/32a21394-96e8-4d16-b7b9-a17cdf047e31.jpgASU: Judging Session (2024)[Wiki](https://2024.igem.wiki/asu)https://static.igem.org/peertube/streaming-playlists/hls/9fbc5439-64d9-462e-a15b-1dd829e530dc/9ddd88ef-caf0-4e08-8c53-946595091c7d-master.m3u8https://video.igem.org/videos/embed/kJ3n3qDKDRRzwcnRtC5vRN15130202024-12-04T11:17:14.388ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2gLxHHyVDUaceBSucggqNwhttps://video.igem.org/lazy-static/thumbnails/2872aa7f-c76f-47a3-9e6d-031481b4294b.jpgHeidelberg: Judging Session (2024)[Wiki](https://2024.igem.wiki/heidelberg)https://static.igem.org/peertube/streaming-playlists/hls/0a4cbf8a-3286-4973-898c-b6595cf12512/eba5e1db-068e-4207-bd97-bffc045fb471-master.m3u8https://video.igem.org/videos/embed/2gLxHHyVDUaceBSucggqNw153505312024-12-04T11:00:49.074ZYES2024 Judging SessionsNOhttps://video.igem.org/w/p3JcyQuFpC4aHnUpY8drcLhttps://video.igem.org/lazy-static/thumbnails/f4f4347e-e112-4a23-bd89-0f6a96204ee8.jpgECIB-PKU: Judging Session (2024)[Wiki](https://2024.igem.wiki/ecib-pku)https://static.igem.org/peertube/streaming-playlists/hls/baa3aedb-511b-4bd9-8cb7-66102f77e83e/b83c4636-fa3c-4d23-a35a-4288d913533c-master.m3u8https://video.igem.org/videos/embed/p3JcyQuFpC4aHnUpY8drcL17590102024-12-04T11:18:22.959ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mXJWPxXEXKTUHNY9WHvK6Hhttps://video.igem.org/lazy-static/thumbnails/3e822ccb-22ff-4dab-88cd-c165dce86c17.jpgUZurich: Judging Session (2024)[Wiki](https://2024.igem.wiki/uzurich)https://static.igem.org/peertube/streaming-playlists/hls/a9bf257d-cfc3-4617-a710-e2cae0dbe22f/d5446578-88fa-45cf-b9fc-61c07d42ea5f-master.m3u8https://video.igem.org/videos/embed/mXJWPxXEXKTUHNY9WHvK6H15250102024-12-04T11:57:41.861ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gkh5gwx2bLyLu4gijomEurhttps://video.igem.org/lazy-static/thumbnails/a53d8f4f-49a9-459b-b8af-198f6080187f.jpgHUBU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/hubu-china)https://static.igem.org/peertube/streaming-playlists/hls/7c2a1e02-873b-4688-86df-be8c9895dc49/dd1785df-1d5c-490b-91d6-bc50000f64aa-master.m3u8https://video.igem.org/videos/embed/gkh5gwx2bLyLu4gijomEur1375072024-12-04T11:49:32.722ZYES2024 Judging SessionsNOhttps://video.igem.org/w/uQqfvxTSyytpwpnPGw5Uzahttps://video.igem.org/lazy-static/thumbnails/02fb21d2-44f5-4a32-86f5-36e0afc0c131.jpgAachen: Judging Session (2024)[Wiki](https://2024.igem.wiki/aachen)https://static.igem.org/peertube/streaming-playlists/hls/e9828733-c8dc-4510-bca1-858ce688fd93/210cf849-74f8-4fea-96ef-4926b43646bb-master.m3u8https://video.igem.org/videos/embed/uQqfvxTSyytpwpnPGw5Uza151101712024-12-04T12:06:17.196ZYES2024 Judging SessionsNOhttps://video.igem.org/w/uteQN8RQgV1u33x9xHMe8ohttps://video.igem.org/lazy-static/thumbnails/6a76abf3-9e11-4172-be23-df3d9244ddd6.jpgTAU-Israel: Judging Session (2024)[Wiki](https://2024.igem.wiki/tau-israel)https://static.igem.org/peertube/streaming-playlists/hls/e68d7e88-c2f9-4940-b60b-2e656bf408f8/a0560a2f-22dc-44b3-9088-84661d3c0c0f-master.m3u8https://video.igem.org/videos/embed/uteQN8RQgV1u33x9xHMe8o1394072024-12-04T11:57:46.296ZYES2024 Judging SessionsNOhttps://video.igem.org/w/g5nxSS83rdgCvo2wtNJYbVhttps://video.igem.org/lazy-static/thumbnails/7507911d-be84-49a6-8cdb-ba916b580974.jpgMIT: Judging Session (2024)[Wiki](https://2024.igem.wiki/mit)https://static.igem.org/peertube/streaming-playlists/hls/7a1555dc-69c4-49a3-ab82-4d070af643a9/23b44083-44fb-49f1-82a2-69592441e0c2-master.m3u8https://video.igem.org/videos/embed/g5nxSS83rdgCvo2wtNJYbV15430152024-12-04T12:03:57.791ZYES2024 Judging SessionsNOhttps://video.igem.org/w/k5PXtb9bY1cTVQoV5j7us9https://video.igem.org/lazy-static/thumbnails/16ccd6bc-e777-416d-a06f-c3bed4e80281.jpgNTU-Taiwan: Judging Session (2024)[Wiki](https://2024.igem.wiki/ntu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/9a8a29ed-0766-4d85-8b43-9b2cd0d23cac/93144822-f3af-4640-bbaa-319a0864574b-master.m3u8https://video.igem.org/videos/embed/k5PXtb9bY1cTVQoV5j7us91751032024-12-04T13:14:14.177ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7WGzBUJxa4UXqFnkfVKqXBhttps://video.igem.org/lazy-static/thumbnails/a4df8905-7d0c-49a1-8e7e-a6a720d8bca0.jpgHZAU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/hzau-china)https://static.igem.org/peertube/streaming-playlists/hls/383a00ee-015b-432e-a840-6fd81017c601/c0d1c14e-4707-4d55-ba1c-deb3efb7d0fc-master.m3u8https://video.igem.org/videos/embed/7WGzBUJxa4UXqFnkfVKqXB13500172024-12-04T10:53:54.682ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wyGN9RijrAFmAcsLe9uqPyhttps://video.igem.org/lazy-static/thumbnails/9437472c-7152-4640-9887-acf231ce4172.jpgMIT-MAHE: Judging Session (2024)[Wiki](https://2024.igem.wiki/mit-mahe)https://static.igem.org/peertube/streaming-playlists/hls/f7831a09-4900-44b0-bcb3-996eaa296f26/73ba7cf4-511d-4ca2-af27-33db75d54504-master.m3u8https://video.igem.org/videos/embed/wyGN9RijrAFmAcsLe9uqPy14330212024-12-04T11:06:30.948ZYES2024 Judging SessionsNOhttps://video.igem.org/w/4pXVvS4xy1xWBMw4EV84c6https://video.igem.org/lazy-static/thumbnails/4a8ac793-eb37-43c6-89d4-40a075feb39f.jpgWestlake: Judging Session (2024)[Wiki](https://2024.igem.wiki/westlake)https://static.igem.org/peertube/streaming-playlists/hls/1ba3fc7b-8a98-42f0-a5c5-86ae271fe3d7/8dd968c9-6109-4d94-b322-75573bacdab2-master.m3u8https://video.igem.org/videos/embed/4pXVvS4xy1xWBMw4EV84c61556072024-12-04T11:09:27.990ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ixugPRVbiQ2Xp4jzvzxRoEhttps://video.igem.org/lazy-static/thumbnails/8df2f4ad-de26-4de0-9354-0316946eb1b3.jpgUMaryland: Judging Session (2024)[Wiki](https://2024.igem.wiki/umaryland)https://static.igem.org/peertube/streaming-playlists/hls/8e10d67d-6ef4-41a7-821b-22dfb9a3fe4e/ef2ca0af-dd23-4aac-8236-fd3683d4d28a-master.m3u8https://video.igem.org/videos/embed/ixugPRVbiQ2Xp4jzvzxRoE1558032024-12-04T11:10:04.445ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1WbCHjesLBhGKkUn9gwkk4https://video.igem.org/lazy-static/thumbnails/31923416-21ba-4121-8696-94504cccbd7b.jpgKyoto: Judging Session (2024)[Wiki](https://2024.igem.wiki/kyoto)https://static.igem.org/peertube/streaming-playlists/hls/0790b764-c1bb-49d6-a3c0-ddf7f60625dd/5f607677-415c-47b7-8402-078d1a55e05c-master.m3u8https://video.igem.org/videos/embed/1WbCHjesLBhGKkUn9gwkk414400212024-12-04T11:06:46.801ZYES2024 Judging SessionsNOhttps://video.igem.org/w/rCV6KCgBatDBkePcYN9kishttps://video.igem.org/lazy-static/thumbnails/5b07e4e9-fb70-48ee-85d6-43b545dcac5a.jpgPisa-IT: Judging Session (2024)[Wiki](https://2024.igem.wiki/pisa-it)https://static.igem.org/peertube/streaming-playlists/hls/cf9bf73b-559c-48ca-ae6d-dbfc96159400/5e3b5381-6cee-4bd1-8e1b-da96d2f1038d-master.m3u8https://video.igem.org/videos/embed/rCV6KCgBatDBkePcYN9kis1545052024-12-04T11:12:10.751ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jsxvp4NdFZ32C4EwGkx6Q8https://video.igem.org/lazy-static/thumbnails/dbc46bd5-c110-40ef-bb69-a39f60e289b6.jpgJLU-NBBMS: Judging Session (2024)[Wiki](https://2024.igem.wiki/jlu-nbbms)https://static.igem.org/peertube/streaming-playlists/hls/9579402d-3910-43f4-b140-a3508a7b8a23/e4d48d7d-a58c-415b-9fc1-40519d206ed0-master.m3u8https://video.igem.org/videos/embed/jsxvp4NdFZ32C4EwGkx6Q815840132024-12-04T11:52:03.785ZYES2024 Judging SessionsNOhttps://video.igem.org/w/49sCYuGmvPnKM3f8fE9wzXhttps://video.igem.org/lazy-static/thumbnails/92af14ee-7da1-48d1-9531-2b564a3ee1fc.jpgPatras: Judging Session (2024)[Wiki](https://2024.igem.wiki/patras)https://static.igem.org/peertube/streaming-playlists/hls/1979c835-e716-4d04-8cf6-e7bbddf9f909/9303f0e2-06b5-4d88-b830-6c2126de809c-master.m3u8https://video.igem.org/videos/embed/49sCYuGmvPnKM3f8fE9wzX15830112024-12-04T11:15:33.877ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3WuKqUkjY1W7meHutf5vpRhttps://video.igem.org/lazy-static/thumbnails/c04be8bd-2e96-4953-bac0-3cec0481cba5.jpgDuke: Judging Session (2024)[Wiki](https://2024.igem.wiki/duke)https://static.igem.org/peertube/streaming-playlists/hls/17ce2870-7aea-438e-bf51-cc814bc8045b/29da6d79-ab5a-4591-bea3-16fc52407c8d-master.m3u8https://video.igem.org/videos/embed/3WuKqUkjY1W7meHutf5vpR1565072024-12-04T11:20:39.881ZYES2024 Judging SessionsNOhttps://video.igem.org/w/pjrWwAzw8qi56xZpMRAsWehttps://video.igem.org/lazy-static/thumbnails/6f13b2b0-2499-452e-9925-f39eba596cb1.jpgMcMaster-Canada: Judging Session (2024)[Wiki](https://2024.igem.wiki/mcmaster-canada)https://static.igem.org/peertube/streaming-playlists/hls/bcd5902e-b448-4f84-a49c-1140630087b1/51b01e33-53f9-4194-b079-9b40a8944d62-master.m3u8https://video.igem.org/videos/embed/pjrWwAzw8qi56xZpMRAsWe15900122024-12-04T11:05:44.732ZYES2024 Judging SessionsNOhttps://video.igem.org/w/u1eae96p1gQS6QTEBBJ3Kahttps://video.igem.org/lazy-static/thumbnails/bf97ac91-62a2-4b6d-ad9f-b2f6b57a8838.jpgIISc-Bengaluru: Judging Session (2024)[Wiki](https://2024.igem.wiki/iisc-bengaluru)https://static.igem.org/peertube/streaming-playlists/hls/e2c7fdf6-fad7-4a28-8ec7-1960de9f1baf/0ee06117-48a3-489e-b1bc-901d783c557e-master.m3u8https://video.igem.org/videos/embed/u1eae96p1gQS6QTEBBJ3Ka1478082024-12-04T13:04:28.158ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8SS5QCCA6nPFS8dPnaeTt9https://video.igem.org/lazy-static/thumbnails/3964f80d-72fa-4a73-b4b3-c2bf4b66b43d.jpgCambridge: Judging Session (2024)[Wiki](https://2024.igem.wiki/cambridge)https://static.igem.org/peertube/streaming-playlists/hls/3fca062d-1487-430c-a029-0daf6ab756ca/19631a6e-71c9-41f5-ad39-ae8030b9e5b4-master.m3u8https://video.igem.org/videos/embed/8SS5QCCA6nPFS8dPnaeTt915340252024-12-04T13:17:48.071ZYES2024 Judging SessionsNOhttps://video.igem.org/w/dEgPtZ9MLJrk4yd76vqjbzhttps://video.igem.org/lazy-static/thumbnails/6807a8fb-692c-4e35-8ada-af00d049a97f.jpgHarvard: Judging Session (2024)[Wiki](https://2024.igem.wiki/harvard)https://static.igem.org/peertube/streaming-playlists/hls/6685acff-c743-4794-9740-a54470caef1d/d96ec7d2-6204-4e1c-a25d-9442b1013cf6-master.m3u8https://video.igem.org/videos/embed/dEgPtZ9MLJrk4yd76vqjbz1513092024-12-04T13:22:05.779ZYES2024 Judging SessionsNOhttps://video.igem.org/w/4iabJ1VFyheb7wzRmYBAcGhttps://video.igem.org/lazy-static/thumbnails/fd8502c5-d249-4825-af69-1d40017bbe0f.jpgHunanU: Judging Session (2024)[Wiki](https://2024.igem.wiki/hunanu)https://static.igem.org/peertube/streaming-playlists/hls/1ab0b870-96c5-4006-83f9-8be90e73b7a6/adb40315-765d-46bd-861b-aa130f6c8e0e-master.m3u8https://video.igem.org/videos/embed/4iabJ1VFyheb7wzRmYBAcG14580122024-12-04T11:51:43.310ZYES2024 Judging SessionsNOhttps://video.igem.org/w/iWYhz6czSZbTs3JSxUAvxphttps://video.igem.org/lazy-static/thumbnails/9ee3617d-6beb-498f-9d99-898338d65831.jpgMunich: Judging Session (2024)[Wiki](https://2024.igem.wiki/munich)https://static.igem.org/peertube/streaming-playlists/hls/91583545-a529-4b29-9018-5b4f3d4846a1/7e5629a6-b861-400a-8701-9b483ebd9aa0-master.m3u8https://video.igem.org/videos/embed/iWYhz6czSZbTs3JSxUAvxp1591092024-12-04T11:25:41.870ZYES2024 Judging SessionsNOhttps://video.igem.org/w/9PvoodZSZ4YzEMMQLJroPRhttps://video.igem.org/lazy-static/thumbnails/64cfbd63-4f1c-43d8-9ed9-7a43a5530703.jpgTuebingen: Judging Session (2024)[Wiki](https://2024.igem.wiki/tuebingen)https://static.igem.org/peertube/streaming-playlists/hls/476b2d1a-6ec4-4515-80a2-d077b5a47777/18dd77bf-4f5d-472d-b482-ada2c18cbe7d-master.m3u8https://video.igem.org/videos/embed/9PvoodZSZ4YzEMMQLJroPR1550002024-12-04T11:33:55.180ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1ncD43LK864ujKPsxkHB11https://video.igem.org/lazy-static/thumbnails/9ecbbafb-9d70-4d38-a681-55f1b802cad6.jpgHBUT-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/hbut-china)https://static.igem.org/peertube/streaming-playlists/hls/02f5cab7-378a-4ad0-86a4-ce751231d9e4/8ae4dd9b-2fab-4a3e-a825-7baa0e7a9d26-master.m3u8https://video.igem.org/videos/embed/1ncD43LK864ujKPsxkHB1115470212024-12-04T11:26:06.498ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ok6cqQTp2XzDvWTZG2BHSNhttps://video.igem.org/lazy-static/thumbnails/c51a7d53-6c62-4b9b-8047-54194babb388.jpgETH-Zurich: Judging Session (2024)[Wiki](https://2024.igem.wiki/eth-zurich)https://static.igem.org/peertube/streaming-playlists/hls/b4d3628b-6558-4b7d-af7e-60c06a53d78e/02e2cabf-85eb-4303-8987-89f04178e925-master.m3u8https://video.igem.org/videos/embed/ok6cqQTp2XzDvWTZG2BHSN1529052024-12-04T11:37:52.411ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aMT6BH1dotAjqQz9TKfSy2https://video.igem.org/lazy-static/thumbnails/0a1fd7b3-41fa-4370-b2ac-5ff6f08f4729.jpgLeiden: Judging Session (2024)[Wiki](https://2024.igem.wiki/leiden)https://static.igem.org/peertube/streaming-playlists/hls/4f4a3506-22ec-49f4-b5f2-ddb83f6f1b89/ec55bce7-d2da-4109-9206-26495e86dc6d-master.m3u8https://video.igem.org/videos/embed/aMT6BH1dotAjqQz9TKfSy21526062024-12-04T11:39:23.338ZYES2024 Judging SessionsNOhttps://video.igem.org/w/iRGR2XVAbvLbHEBTY6FtUPhttps://video.igem.org/lazy-static/thumbnails/ad221290-7047-47a3-a19c-ced946b4bdf7.jpgJilin-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/jilin-china)https://static.igem.org/peertube/streaming-playlists/hls/909bf94c-db89-436a-9735-7ca83fa35d6b/7032a9fe-4122-4583-b54f-33d23f31af65-master.m3u8https://video.igem.org/videos/embed/iRGR2XVAbvLbHEBTY6FtUP15230442024-12-04T12:34:12.537ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5Re1cN4JEBHWVfsYohiUFhhttps://video.igem.org/lazy-static/thumbnails/5dd01702-d6cd-49d9-a76e-8431323b77e2.jpgTUPLS-Japan: Judging Session (2024)[Wiki](https://2024.igem.wiki/tupls-japan)https://static.igem.org/peertube/streaming-playlists/hls/27440358-3ea6-43cf-9ca3-df777dfb6c9e/ec8169ad-7548-4bb7-b936-bc0a9698f622-master.m3u8https://video.igem.org/videos/embed/5Re1cN4JEBHWVfsYohiUFh13820222024-12-04T11:37:06.306ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wsv89doMqKBqmTjzKmndFBhttps://video.igem.org/lazy-static/thumbnails/37a827b5-8031-4ff7-9069-82d1f568d009.jpgEvry-Paris-Saclay: Judging Session (2024)[Wiki](https://2024.igem.wiki/evry-paris-saclay)https://static.igem.org/peertube/streaming-playlists/hls/f6a57211-fdcc-477b-bcfd-175cef4e0151/968b2890-bd23-4927-8e4b-b0003fa5edff-master.m3u8https://video.igem.org/videos/embed/wsv89doMqKBqmTjzKmndFB1449082024-12-04T11:36:51.933ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6TMsUQbZZepvMekyuQCf5uhttps://video.igem.org/lazy-static/thumbnails/8deaa734-806f-429c-b332-1139b59810ab.jpgSCU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/scu-china)https://static.igem.org/peertube/streaming-playlists/hls/2fb8a4cc-5fde-4622-94de-ac1bf027219c/d98263d5-4ed0-4c15-8710-ffd2b5f5277f-master.m3u8https://video.igem.org/videos/embed/6TMsUQbZZepvMekyuQCf5u13630212024-12-04T11:42:32.704ZYES2024 Judging SessionsNOhttps://video.igem.org/w/rR1CDFQrnnzpXm6PWerodwhttps://video.igem.org/lazy-static/thumbnails/11169b53-d352-4a58-bdd7-b2a89d57d377.jpgNU-Kazakhstan: Judging Session (2024)[Wiki](https://2024.igem.wiki/nu-kazakhstan)https://static.igem.org/peertube/streaming-playlists/hls/d14c4cf7-3a3b-43d5-aaa3-fd7544c063a6/d5cdb531-99ad-4d3d-a757-1645b31e5de3-master.m3u8https://video.igem.org/videos/embed/rR1CDFQrnnzpXm6PWerodw14960212024-12-04T12:23:02.068ZYES2024 Judging SessionsNOhttps://video.igem.org/w/biMtAdLsabMpy2xrpXyh3Fhttps://video.igem.org/lazy-static/thumbnails/129d7930-0cf1-46ca-8a49-baa936f12b84.jpgTokyoTech: Judging Session (2024)[Wiki](https://2024.igem.wiki/tokyotech)https://static.igem.org/peertube/streaming-playlists/hls/53770e5b-388a-40ff-a763-34af0f0ede6b/16f943b5-65c4-4c34-a698-a7fecebd2368-master.m3u8https://video.igem.org/videos/embed/biMtAdLsabMpy2xrpXyh3F14800112024-12-04T11:41:02.527ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mLc4RYVGq9ssDd5HM3DRDnhttps://video.igem.org/lazy-static/thumbnails/a7ad7289-f285-4212-8afe-4d4574dc7e65.jpgAix-Marseille: Judging Session (2024)[Wiki](https://2024.igem.wiki/aix-marseille)https://static.igem.org/peertube/streaming-playlists/hls/a82251b0-bf14-45d7-8f69-baa5c29f2ba3/08e552ba-1f64-4f50-8f41-73b650f3f2eb-master.m3u8https://video.igem.org/videos/embed/mLc4RYVGq9ssDd5HM3DRDn1602092024-12-04T11:49:24.564ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6pJAKLNqxX2g7Hdwkm1Q1Khttps://video.igem.org/lazy-static/thumbnails/36f15fad-4d98-4c6b-8480-fb79cfd5113c.jpgOUC-Haide: Judging Session (2024)[Wiki](https://2024.igem.wiki/ouc-haide)https://static.igem.org/peertube/streaming-playlists/hls/2bce0d7e-7e14-465c-a168-d44ef0afa98b/cc4dc2d7-3e1e-420a-bbb4-77b139b14903-master.m3u8https://video.igem.org/videos/embed/6pJAKLNqxX2g7Hdwkm1Q1K14880112024-12-04T11:48:22.525ZYES2024 Judging SessionsNOhttps://video.igem.org/w/o9ywTbKjiMrqjd61dGqTsjhttps://video.igem.org/lazy-static/thumbnails/714cc206-8a14-4429-bbd0-c3225394f37f.jpgECUST: Judging Session (2024)[Wiki](https://2024.igem.wiki/ecust)https://static.igem.org/peertube/streaming-playlists/hls/b35b0cad-425a-4268-b9a6-fcb202aed262/a3855428-766b-4172-abb4-c4c3f389bce7-master.m3u8https://video.igem.org/videos/embed/o9ywTbKjiMrqjd61dGqTsj1540092024-12-04T11:55:59.078ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1amAPooL2hAtPWcASPDENQhttps://video.igem.org/lazy-static/thumbnails/5f01c926-0ffe-4b7d-8959-fad403061887.jpgSheffield: Judging Session (2024)[Wiki](https://2024.igem.wiki/sheffield)https://static.igem.org/peertube/streaming-playlists/hls/014e63a9-eeb1-454a-bbd0-265c828b64ec/30fe40fd-08cf-4b31-9658-e9c33bda9b9c-master.m3u8https://video.igem.org/videos/embed/1amAPooL2hAtPWcASPDENQ1474052024-12-04T11:46:24.882ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wXg8cGTyeKdW1CpvZqoYy8https://video.igem.org/lazy-static/thumbnails/4a475d62-05fc-4852-ad89-bf2a89854e52.jpgIonis-Paris: Judging Session (2024)[Wiki](https://2024.igem.wiki/ionis-paris)https://static.igem.org/peertube/streaming-playlists/hls/faa96343-9697-4ff6-bd16-ce923918a377/aa1f0fa9-2630-49fe-9f97-f1c842ca4a0d-master.m3u8https://video.igem.org/videos/embed/wXg8cGTyeKdW1CpvZqoYy815210322024-12-04T11:51:50.492ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cHkobE5rT9KYFMVSjv1DwQhttps://video.igem.org/lazy-static/thumbnails/63f5090a-3146-4a94-b42a-d64fd9fe641d.jpgDTU-Denmark: Judging Session (2024)[Wiki](https://2024.igem.wiki/dtu-denmark)https://static.igem.org/peertube/streaming-playlists/hls/5ed9f6f7-005d-483a-b5e9-53ec4c222d40/fb578f48-2779-4b55-b2f0-2ea35e1369fb-master.m3u8https://video.igem.org/videos/embed/cHkobE5rT9KYFMVSjv1DwQ1521072024-12-04T11:46:11.010ZYES2024 Judging SessionsNOhttps://video.igem.org/w/m1XWdVD4GRW6CXAqbdSpAuhttps://video.igem.org/lazy-static/thumbnails/44f2624a-1280-43b8-ae41-caaec21a3d85.jpgQueens-Canada: Judging Session (2024)[Wiki](https://2024.igem.wiki/queens-canada)https://static.igem.org/peertube/streaming-playlists/hls/a2193e89-eff5-4aa1-b190-5293890a34dc/4df17ebc-dcfc-4847-9576-4ff6e253b4c3-master.m3u8https://video.igem.org/videos/embed/m1XWdVD4GRW6CXAqbdSpAu15790162024-12-04T11:48:37.886ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gJAmcen7gs5WmwY6gv2weKhttps://video.igem.org/lazy-static/thumbnails/9d8ae36d-5cdd-4288-9e09-99be380f34ca.jpgThessaly: Judging Session (2024)[Wiki](https://2024.igem.wiki/thessaly)https://static.igem.org/peertube/streaming-playlists/hls/7f6b7c6d-b8f4-479a-8583-a46b5c0eefed/0b822e31-bfcc-4231-899b-d2a0e71ef41b-master.m3u8https://video.igem.org/videos/embed/gJAmcen7gs5WmwY6gv2weK14180322024-12-04T11:52:38.562ZYES2024 Judging SessionsNOhttps://video.igem.org/w/tZzevP7JHKQVbw8thcc2cMhttps://video.igem.org/lazy-static/thumbnails/4f105ba7-1c04-43fe-9a17-9ec154a6f53b.jpgPekingHSC: Judging Session (2024)[Wiki](https://2024.igem.wiki/pekinghsc)https://static.igem.org/peertube/streaming-playlists/hls/e2b09e88-b8a0-46d0-a623-2a1b2ffb3177/4e253e43-69ec-42ba-b6e2-06490566dff9-master.m3u8https://video.igem.org/videos/embed/tZzevP7JHKQVbw8thcc2cM15130252024-12-04T11:48:50.570ZYES2024 Judging SessionsNOhttps://video.igem.org/w/q9v3avjtYxRtLPmcxKTpUihttps://video.igem.org/lazy-static/thumbnails/def880a5-07ed-4623-927b-1783ba83289c.jpgHainanU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/hainanu-china)https://static.igem.org/peertube/streaming-playlists/hls/c38b2c41-a880-4a8e-9262-74b1df3ac1dd/bb358c28-d6cd-4dbb-aebc-e0350e16dcb9-master.m3u8https://video.igem.org/videos/embed/q9v3avjtYxRtLPmcxKTpUi10520182024-12-04T11:59:21.454ZYES2024 Judging SessionsNOhttps://video.igem.org/w/u8LHyGwcDpFkicZ1prSM1yhttps://video.igem.org/lazy-static/thumbnails/1748c767-1341-4550-a3c7-c0582e66e3fc.jpgDUESSELDORF: Judging Session (2024)[Wiki](https://2024.igem.wiki/duesseldorf)https://static.igem.org/peertube/streaming-playlists/hls/e3d5a57e-a847-49a4-84cd-20e31bef72b4/4e7821b2-e9ca-401d-abf9-a12c3aac40ab-master.m3u8https://video.igem.org/videos/embed/u8LHyGwcDpFkicZ1prSM1y15670122024-12-04T12:20:38.290ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8fpS6zXj9kjjkWfSRAJAgLhttps://video.igem.org/lazy-static/thumbnails/6e4f1dc5-848c-493c-b3a5-ef6c23992de8.jpgGU-Frankfurt: Judging Session (2024)[Wiki](https://2024.igem.wiki/gu-frankfurt)https://static.igem.org/peertube/streaming-playlists/hls/3ab31706-ad80-4467-82d6-2f6cc915642a/dcb34498-da1a-4bec-aaaf-72d282fae30c-master.m3u8https://video.igem.org/videos/embed/8fpS6zXj9kjjkWfSRAJAgL15710162024-12-04T12:30:00.589ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cT5AedKxn34ij2KmKCHRwihttps://video.igem.org/lazy-static/thumbnails/08570c4d-795e-4412-b579-197635194a36.jpgStony-Brook: Judging Session (2024)[Wiki](https://2024.igem.wiki/stony-brook)https://static.igem.org/peertube/streaming-playlists/hls/6036494b-1879-4562-87de-c27bf550a4c9/6519910c-b4c3-420d-acec-f235c84e81a5-master.m3u8https://video.igem.org/videos/embed/cT5AedKxn34ij2KmKCHRwi15220192024-12-04T12:35:41.981ZYES2024 Judging SessionsNOhttps://video.igem.org/w/btMdzsgGoESyaQn1fLmBWQhttps://video.igem.org/lazy-static/thumbnails/32d75179-63cb-41b1-8bda-6cba439322d9.jpgUCAS-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/ucas-china)https://static.igem.org/peertube/streaming-playlists/hls/54dc5591-f23c-4faa-81af-cd3897827778/e31ce3d9-418c-46a3-875f-bdd3d3162651-master.m3u8https://video.igem.org/videos/embed/btMdzsgGoESyaQn1fLmBWQ16540122024-12-04T12:11:46.183ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ciaE1UD1Jff8KSngZPXRCchttps://video.igem.org/lazy-static/thumbnails/f931e346-476d-4980-862a-de9d87a2dd29.jpgUToronto: Judging Session (2024)[Wiki](https://2024.igem.wiki/utoronto)https://static.igem.org/peertube/streaming-playlists/hls/5b7a1ea6-7707-49ba-9dd2-f5f7dd74777f/a8ae9dd1-6b2f-4f4f-b722-1684c7bea4a8-master.m3u8https://video.igem.org/videos/embed/ciaE1UD1Jff8KSngZPXRCc14870542024-12-04T13:16:53.685ZYES2024 Judging SessionsNOhttps://video.igem.org/w/xeUK8FVEesXPpWEKvyBgwAhttps://video.igem.org/lazy-static/thumbnails/9f6e1773-ac5b-44e8-98ce-ad8e4ecf08f9.jpgDUT: Judging Session (2024)[Wiki](https://2024.igem.wiki/dut)https://static.igem.org/peertube/streaming-playlists/hls/fcfc78ce-f663-4bf3-8c6e-e1d2739ed062/8ee36b08-5ff7-489f-917d-b85f17de5009-master.m3u8https://video.igem.org/videos/embed/xeUK8FVEesXPpWEKvyBgwA1527052024-12-04T13:25:53.161ZYES2024 Judging SessionsNOhttps://video.igem.org/w/4B2EMnURedfb7TvHioVti9https://video.igem.org/lazy-static/thumbnails/8532b119-b41e-4084-a49c-e594389b22bf.jpgTsinghua-M: Judging Session (2024)[Wiki](https://2024.igem.wiki/tsinghua-m)https://static.igem.org/peertube/streaming-playlists/hls/1d2f79ed-6faa-49b1-8fb3-de0b1982b7b6/fbbce873-84aa-4768-b6d5-f060f0c69ccd-master.m3u8https://video.igem.org/videos/embed/4B2EMnURedfb7TvHioVti91478092024-12-04T13:17:26.236ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wTJi3xKAopjUDEEDtD7AMnhttps://video.igem.org/lazy-static/thumbnails/1294eb69-12ab-4cc5-914a-6fa8085cbfb6.jpgBYU-Provo: Judging Session (2024)[Wiki](https://2024.igem.wiki/byu-provo)https://static.igem.org/peertube/streaming-playlists/hls/fa2b2816-1cfe-4f87-b351-9ff41cacff6f/8511fba7-a43d-4fcf-8e2d-dbc24fc1fe9b-master.m3u8https://video.igem.org/videos/embed/wTJi3xKAopjUDEEDtD7AMn1711032024-12-04T14:16:52.353ZYES2024 Judging SessionsNOhttps://video.igem.org/w/bKV6aB23HBt1mWx6dHNDvWhttps://video.igem.org/lazy-static/thumbnails/e8b26c96-14c4-4e6e-8b3d-6572c0f84a44.jpgHUST-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/hust-china)https://static.igem.org/peertube/streaming-playlists/hls/571d1604-8853-42a0-8aa3-dfa76a8305fc/f9e4f8a4-6034-4fd5-a4e3-a4522053c38f-master.m3u8https://video.igem.org/videos/embed/bKV6aB23HBt1mWx6dHNDvW15900152024-12-04T12:37:35.251ZYES2024 Judging SessionsNOhttps://video.igem.org/w/iKMHP1TZKXrLiCu6r21MWkhttps://video.igem.org/lazy-static/thumbnails/8bcf0405-1dda-483e-8e17-6f6d7b55e6b6.jpgUSTC: Judging Session (2024)[Wiki](https://2024.igem.wiki/ustc)https://static.igem.org/peertube/streaming-playlists/hls/8fc8840c-b177-4ac6-a7ed-dc0080a69093/aa0b3d1e-5c2a-4a59-a239-372299cf7f92-master.m3u8https://video.igem.org/videos/embed/iKMHP1TZKXrLiCu6r21MWk1510062024-12-04T12:49:04.725ZYES2024 Judging SessionsNOhttps://video.igem.org/w/dSw8tQkwuMQ5MCa1LTXQFqhttps://video.igem.org/lazy-static/thumbnails/6e026e90-e7d6-4568-8182-f2d9d506c390.jpgTongji-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/tongji-china)https://static.igem.org/peertube/streaming-playlists/hls/683b6b88-9e22-4c4a-ae51-6c05f95e6476/5a409a46-040d-43ab-9696-7e767aeaf941-master.m3u8https://video.igem.org/videos/embed/dSw8tQkwuMQ5MCa1LTXQFq15180172024-12-04T12:33:14.474ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1zxinLj9HSpSEjgfSXdD7Uhttps://video.igem.org/lazy-static/thumbnails/47d26f2d-39ad-48d3-ae1b-b7895884bfd6.jpgShanghaitech-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/shanghaitech-china)https://static.igem.org/peertube/streaming-playlists/hls/04aed55d-74f7-4f07-8b32-d3fb27102c54/ffb04152-9b46-417a-b041-9972dc6afc3f-master.m3u8https://video.igem.org/videos/embed/1zxinLj9HSpSEjgfSXdD7U10460152024-12-04T12:18:46.218ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ia7Fjnv8KrtCbYniQaR1wHhttps://video.igem.org/lazy-static/thumbnails/30f12f7c-0d0c-4261-baf8-c87b0ade26a7.jpgFSU: Judging Session (2024)[Wiki](https://2024.igem.wiki/fsu)https://static.igem.org/peertube/streaming-playlists/hls/8af12aa2-2091-413f-996c-2363b23486ed/3f8aba36-f26c-4e73-92e5-35831e79abe7-master.m3u8https://video.igem.org/videos/embed/ia7Fjnv8KrtCbYniQaR1wH15030132024-12-04T12:39:37.199ZYES2024 Judging SessionsNOhttps://video.igem.org/w/tr3tqavHKw9yv8s1Co1Qsihttps://video.igem.org/lazy-static/thumbnails/9d7d43db-0d9c-4a46-9046-13ea7b289b86.jpgMcGill: Judging Session (2024)[Wiki](https://2024.igem.wiki/mcgill)https://static.igem.org/peertube/streaming-playlists/hls/de25dca7-2559-4407-8a91-24fb4db7b095/eade7403-5c3e-43eb-9e1a-2990a77b14c5-master.m3u8https://video.igem.org/videos/embed/tr3tqavHKw9yv8s1Co1Qsi15180312024-12-04T12:49:19.146ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cndCe2Asuw4fYgS5b3uKKihttps://video.igem.org/lazy-static/thumbnails/7cb561fb-fe56-4863-8050-a6d96ef7e4c5.jpgTU-Dresden: Judging Session (2024)[Wiki](https://2024.igem.wiki/tu-dresden)https://static.igem.org/peertube/streaming-playlists/hls/5c0aecb2-1d52-4efe-ae26-b2e25467629b/88f750f1-bdb4-446c-962f-982d60dc7216-master.m3u8https://video.igem.org/videos/embed/cndCe2Asuw4fYgS5b3uKKi15870152024-12-04T12:51:31.344ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6qQNge9YitPtKLf2vh2Vbohttps://video.igem.org/lazy-static/thumbnails/fbf5158b-bea1-410c-b0ce-b2c0e5b9e5ee.jpgIISER-Kolkata: Judging Session (2024)[Wiki](https://2024.igem.wiki/iiser-kolkata)https://static.igem.org/peertube/streaming-playlists/hls/2bf59dcb-97d6-4cc3-9821-315a56a33056/c5130fb9-16bc-4284-a479-cc5e14bcab93-master.m3u8https://video.igem.org/videos/embed/6qQNge9YitPtKLf2vh2Vbo14420272024-12-04T12:38:55.198ZYES2024 Judging SessionsNOhttps://video.igem.org/w/dWUMXTmuq4epms79peddMohttps://video.igem.org/lazy-static/thumbnails/f0c2ba80-5c08-409d-9e43-d103a3ffc296.jpgUppsalaUniversity: Judging Session (2024)[Wiki](https://2024.igem.wiki/uppsalauniversity)https://static.igem.org/peertube/streaming-playlists/hls/68d85cad-3dea-451e-aa3e-ea4e30490408/41a1bf9e-6414-4b43-a5a8-f2859fb20354-master.m3u8https://video.igem.org/videos/embed/dWUMXTmuq4epms79peddMo1227062024-12-04T12:32:55.522ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5Pe64ZSitSTs6T4QLYEcqzhttps://video.igem.org/lazy-static/thumbnails/44d5fbf2-3bbf-49f1-bb50-9c8a3387a671.jpgMarburg: Judging Session (2024)[Wiki](https://2024.igem.wiki/marburg)https://static.igem.org/peertube/streaming-playlists/hls/26fc93c4-f151-474a-8396-7ab349754b8d/15c34524-f5b0-49b2-8f61-269be87bbdda-master.m3u8https://video.igem.org/videos/embed/5Pe64ZSitSTs6T4QLYEcqz176501832024-12-04T20:13:55.923ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qXphMLRDEF4zeV19cXSAJ1https://video.igem.org/lazy-static/thumbnails/5164b692-f85e-4a4a-a989-3815763de2c1.jpgTU-Eindhoven: Judging Session (2024)[Wiki](https://2024.igem.wiki/tu-eindhoven)https://static.igem.org/peertube/streaming-playlists/hls/ca17967c-5915-43ca-9db9-06bbe218656c/2cc7a4b9-b484-4318-8b21-9f1de9ba613d-master.m3u8https://video.igem.org/videos/embed/qXphMLRDEF4zeV19cXSAJ115350162024-12-04T12:34:18.059ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5KKayDzMbCeStXET1BC5ovhttps://video.igem.org/lazy-static/thumbnails/f9db9d4b-38dc-4194-a411-65e912b7b801.jpgHKU-HongKong: Judging Session (2024)[Wiki](https://2024.igem.wiki/hku-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/26802357-4d75-4003-bc1b-859f7ce1c339/93d500ea-62c2-4cee-9cfd-97a478a64144-master.m3u8https://video.igem.org/videos/embed/5KKayDzMbCeStXET1BC5ov15720142024-12-04T12:51:42.474ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ubS5UFDn2y3PAsbt64C9dDhttps://video.igem.org/lazy-static/thumbnails/a8491e92-30ae-4dea-8d6b-9f8e0f6fe229.jpgHBMU-Taihe: Judging Session (2024)[Wiki](https://2024.igem.wiki/hbmu-taihe)https://static.igem.org/peertube/streaming-playlists/hls/e4442f98-f108-4d52-89bc-71ced446b8ad/2b9fbc82-ce8f-42ea-b579-c9e21d65911d-master.m3u8https://video.igem.org/videos/embed/ubS5UFDn2y3PAsbt64C9dD14350112024-12-04T12:40:53.887ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ruvdqDaYi6tCiRkNdurjaJhttps://video.igem.org/lazy-static/thumbnails/b6999b0f-1460-4305-be9e-14c48ae8a837.jpgUM-Macau: Judging Session (2024)[Wiki](https://2024.igem.wiki/um-macau)https://static.igem.org/peertube/streaming-playlists/hls/ce6f4bc4-416f-4f71-b046-90aea6f5f7e4/9afcfd8a-442c-480e-934e-3182830cb89d-master.m3u8https://video.igem.org/videos/embed/ruvdqDaYi6tCiRkNdurjaJ1517092024-12-04T12:43:39.766ZYES2024 Judging SessionsNOhttps://video.igem.org/w/nXKhvnSUqZ1Eu3EehLWskwhttps://video.igem.org/lazy-static/thumbnails/2899b4d1-34d3-4c22-b794-c8ca790f55dc.jpgGSLZ-A: Judging Session (2024)[Wiki](https://2024.igem.wiki/gslz-a)https://static.igem.org/peertube/streaming-playlists/hls/b1d87e89-bbc4-433a-bf08-36b6997ff984/af6c77cf-c7e4-4f57-8f1e-a433b89eb016-master.m3u8https://video.igem.org/videos/embed/nXKhvnSUqZ1Eu3EehLWskw15390122024-12-04T12:56:33.710ZYES2024 Judging SessionsNOhttps://video.igem.org/w/m13F8vyfgDVTbzu6SkismQhttps://video.igem.org/lazy-static/thumbnails/f9dfb435-8fd4-4168-9d2e-0ed6f9da179b.jpgHopkins: Judging Session (2024)[Wiki](https://2024.igem.wiki/hopkins)https://static.igem.org/peertube/streaming-playlists/hls/a1f86be8-0403-4f03-9031-a365af0756b8/66487273-0a7a-48f7-9e12-49ea6d4175c3-master.m3u8https://video.igem.org/videos/embed/m13F8vyfgDVTbzu6SkismQ1569052024-12-04T12:55:53.876ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mYkSjmZkr7hvNVBwCL2Hddhttps://video.igem.org/lazy-static/thumbnails/deb0eaf1-69b6-4b8d-a848-f031d1b13747.jpgStockholm: Judging Session (2024)[Wiki](https://2024.igem.wiki/stockholm)https://static.igem.org/peertube/streaming-playlists/hls/a9d4ab09-d08a-4c64-ad2a-ff13bdabc0f0/a23e8ba9-c227-4a6e-9bd9-cfc6d4cce95e-master.m3u8https://video.igem.org/videos/embed/mYkSjmZkr7hvNVBwCL2Hdd1398042024-12-04T12:32:26.409ZYES2024 Judging SessionsNOhttps://video.igem.org/w/sqgJxakZPynyPybqynncd1https://video.igem.org/lazy-static/thumbnails/fe7cb09a-f786-443a-b7c9-afc03e7895cf.jpgJLU-CP: Judging Session (2024)[Wiki](https://2024.igem.wiki/jlu-cp)https://static.igem.org/peertube/streaming-playlists/hls/d5f126d5-53cb-4ba8-bd64-7b24211cabdc/7a3a1873-3ba2-4e55-a00d-a2f26574cf30-master.m3u8https://video.igem.org/videos/embed/sqgJxakZPynyPybqynncd115110252024-12-04T12:35:27.380ZYES2024 Judging SessionsNOhttps://video.igem.org/w/xamWiw8R3js6BXsT3xEuBghttps://video.igem.org/lazy-static/thumbnails/033aa385-ffc6-468f-8877-342bb572fe91.jpgZJU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/zju-china)https://static.igem.org/peertube/streaming-playlists/hls/fc59e512-1ab5-48b2-9da0-454548f892cd/47b8ed84-1ac1-4132-be7f-5023ccbcfe91-master.m3u8https://video.igem.org/videos/embed/xamWiw8R3js6BXsT3xEuBg15060122024-12-04T13:37:58.559ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ohNaoeRKzHKqbcMp1i8dJJhttps://video.igem.org/lazy-static/thumbnails/4e0e67b0-9f88-42fb-9c9d-1cb294d48100.jpgIISER-TVM: Judging Session (2024)[Wiki](https://2024.igem.wiki/iiser-tvm)https://static.igem.org/peertube/streaming-playlists/hls/b4816628-1b67-4cc3-983c-8227f6409bc6/4211bc4e-f5cb-4d81-870e-c430c7aff51b-master.m3u8https://video.igem.org/videos/embed/ohNaoeRKzHKqbcMp1i8dJJ15030752024-12-04T13:17:53.452ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wUF2smsJpcSwfH6FnGSgpchttps://video.igem.org/lazy-static/thumbnails/8a7664ff-3482-4187-913b-d73c83a3b1c6.jpgCHINA-FUZHOU: Judging Session (2024)[Wiki](https://2024.igem.wiki/china-fuzhou)https://static.igem.org/peertube/streaming-playlists/hls/fa4ce2ca-20e8-4c2a-bea1-6ec696c34c0d/57f0f6e1-96de-4189-a872-6c67faf82dc8-master.m3u8https://video.igem.org/videos/embed/wUF2smsJpcSwfH6FnGSgpc1521032024-12-04T13:22:36.655ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6jEH8qMaeudJ6xmciMZGJ1https://video.igem.org/lazy-static/thumbnails/5fd160c6-945c-4306-886f-c07fc9b87705.jpgSustech-Med: Judging Session (2024)[Wiki](https://2024.igem.wiki/sustech-med)https://static.igem.org/peertube/streaming-playlists/hls/2b18efbe-037d-4827-a169-29e1d7f2053c/2077543a-691a-426e-9246-65c7e28cdc77-master.m3u8https://video.igem.org/videos/embed/6jEH8qMaeudJ6xmciMZGJ11285062024-12-04T13:37:27.765ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qiXkiRg4eZdm8FQs4XxEWThttps://video.igem.org/lazy-static/thumbnails/4c129ab4-c938-402d-980b-894df4c7eb26.jpgIIT-ROORKEE: Judging Session (2024)[Wiki](https://2024.igem.wiki/iit-roorkee)https://static.igem.org/peertube/streaming-playlists/hls/c4dd1270-f5f7-4a88-a336-69794620716f/89c3b02f-ee26-4589-a551-47312f037dd4-master.m3u8https://video.igem.org/videos/embed/qiXkiRg4eZdm8FQs4XxEWT1319082024-12-04T13:36:39.994ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gDdB1i54jZGT4nMkGwh54fhttps://video.igem.org/lazy-static/thumbnails/3c037315-eea4-4c0a-a4bc-acba4ef4a228.jpgSZPU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/szpu-china)https://static.igem.org/peertube/streaming-playlists/hls/7eab5dd9-26cc-4c1b-908f-d0b8d3756eec/c4fa4008-10d7-4731-bb78-1fd8a5e3b818-master.m3u8https://video.igem.org/videos/embed/gDdB1i54jZGT4nMkGwh54f753042024-12-04T12:56:56.438ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7FYUChZCgCQGom2XRe7gtbhttps://video.igem.org/lazy-static/thumbnails/fe21fe45-df21-49a8-a2d1-55fbfa8f9a30.jpgMissouri-Miners: Judging Session (2024)[Wiki](https://2024.igem.wiki/missouri-miners)https://static.igem.org/peertube/streaming-playlists/hls/362be8cd-6c3c-443b-a99b-34694829e7e4/79ea7fc5-7128-46ca-b59d-2e7228592c67-master.m3u8https://video.igem.org/videos/embed/7FYUChZCgCQGom2XRe7gtb1323002024-12-04T13:41:33.369ZYES2024 Judging SessionsNOhttps://video.igem.org/w/j6QL2G6qLhiDZ3B7kiTP9Nhttps://video.igem.org/lazy-static/thumbnails/07cbea1e-d257-4741-9130-8ac58cc5541b.jpgULaval: Judging Session (2024)[Wiki](https://2024.igem.wiki/ulaval)https://static.igem.org/peertube/streaming-playlists/hls/9295437b-c459-4feb-92eb-aa02428cb782/debe7b7d-1226-4de9-a764-c1d8b7486c8f-master.m3u8https://video.igem.org/videos/embed/j6QL2G6qLhiDZ3B7kiTP9N1657022024-12-02T16:39:04.556ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8tcewP4vCkHcJ8MeGYW3jFhttps://video.igem.org/lazy-static/thumbnails/b34ce9e5-53d2-4d66-9bf5-555a47354cdf.jpgWageningenUR: Judging Session (2024)[Wiki](https://2024.igem.wiki/wageningenur)https://static.igem.org/peertube/streaming-playlists/hls/3c7bf9a5-1543-49c5-af7f-9197e8cd5833/7cb5ec12-ac20-448b-a9fb-5a32ab00e0a2-master.m3u8https://video.igem.org/videos/embed/8tcewP4vCkHcJ8MeGYW3jF15450542024-12-04T12:41:51.517ZYES2024 Judging SessionsNOhttps://video.igem.org/w/bBjfj8GAYRRj2Sfx6un585https://video.igem.org/lazy-static/thumbnails/24a8b9eb-e5ca-4233-8440-45da0175fc45.jpgUCNZ: Judging Session (2024)[Wiki](https://2024.igem.wiki/ucnz)https://static.igem.org/peertube/streaming-playlists/hls/55e9a9dc-85d6-470d-a576-38d98bfa5612/53db87c4-3a13-4f7b-87b1-90ae2db7685e-master.m3u8https://video.igem.org/videos/embed/bBjfj8GAYRRj2Sfx6un5851558032024-12-04T12:42:54.497ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8WwoMNS3nEtczixJWiWCGRhttps://video.igem.org/lazy-static/thumbnails/8fb3ce5f-41d3-4176-a789-220cc18687d2.jpgChalmers-Gothenburg: Judging Session (2024)[Wiki](https://2024.igem.wiki/chalmers-gothenburg)https://static.igem.org/peertube/streaming-playlists/hls/404cdd50-540b-46f2-95d6-e35051080f91/5fae4f33-8199-4195-8bd5-e9d6e5eedcba-master.m3u8https://video.igem.org/videos/embed/8WwoMNS3nEtczixJWiWCGR1157052024-12-04T12:31:22.267ZYES2024 Judging SessionsNOhttps://video.igem.org/w/u28cWCGBQhAeYfEeogWbN7https://video.igem.org/lazy-static/thumbnails/6e885f26-dd84-46ef-a15e-9fcfa0bd1c82.jpgNTHU-Taiwan: Judging Session (2024)[Wiki](https://2024.igem.wiki/nthu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/e2e81129-9349-4fde-9d60-815e46bf343a/84380a1b-e048-4558-b16b-1c8eb64947cb-master.m3u8https://video.igem.org/videos/embed/u28cWCGBQhAeYfEeogWbN71516012024-12-04T12:48:12.113ZYES2024 Judging SessionsNOhttps://video.igem.org/w/abDptu3QCum3NVDdHP4jSshttps://video.igem.org/lazy-static/thumbnails/2e964a3a-e832-4c28-ab63-626abf506033.jpgSCUT-China-B: Judging Session (2024)[Wiki](https://2024.igem.wiki/scut-china-b)https://static.igem.org/peertube/streaming-playlists/hls/4a5ebcb3-cec2-4b7c-8e4d-09d4c21e9b7e/2fce75c5-7993-4dda-af4a-97deb6ac2d57-master.m3u8https://video.igem.org/videos/embed/abDptu3QCum3NVDdHP4jSs15280122024-12-04T19:46:52.040ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cURRr5Uu2SDgGX5ctrPhPZhttps://video.igem.org/lazy-static/thumbnails/4ba28d35-c695-4bc3-b31a-03e747b5f67f.jpgUAlberta: Judging Session (2024)[Wiki](https://2024.igem.wiki/ualberta)https://static.igem.org/peertube/streaming-playlists/hls/6075ec82-3342-4e09-8fbd-81b1a76f72a7/16d5458a-9b69-423b-b1ba-80fe87954351-master.m3u8https://video.igem.org/videos/embed/cURRr5Uu2SDgGX5ctrPhPZ1527082024-12-04T14:03:20.854ZYES2024 Judging SessionsNOhttps://video.igem.org/w/q19mQbKVLLMtGiiu7z4aiAhttps://video.igem.org/lazy-static/thumbnails/793d0e2c-55aa-4d34-b44f-40b015b5fba3.jpgiZJU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/izju-china)https://static.igem.org/peertube/streaming-playlists/hls/c2607ab6-ac1a-45bb-8d71-f474111d9008/fa590895-2ad0-402c-ad8c-5c12c586985d-master.m3u8https://video.igem.org/videos/embed/q19mQbKVLLMtGiiu7z4aiA15570252024-12-04T13:43:55.409ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ceSfPs2b5UNhczetH4ji1whttps://video.igem.org/lazy-static/thumbnails/4a1da6ee-c405-4d13-aeca-401835e6e17f.jpgJLU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/5b042a51-e9ce-4e00-a709-f387bbe4f462/5f352024-3714-4843-ab0c-df163fd4a653-master.m3u8https://video.igem.org/videos/embed/ceSfPs2b5UNhczetH4ji1w1347072024-12-04T15:10:40.727ZYES2024 Judging SessionsNOhttps://video.igem.org/w/21cFgAWKUJwE14VcztoYuGhttps://video.igem.org/lazy-static/thumbnails/56302dcb-f6aa-4404-9dd0-288262249031.jpgPeking: Judging Session (2024)[Wiki](https://2024.igem.wiki/peking)https://static.igem.org/peertube/streaming-playlists/hls/082055bb-ef04-4766-a871-e7653cc14c60/7f133f77-b80a-427c-93ed-0de96ab77172-master.m3u8https://video.igem.org/videos/embed/21cFgAWKUJwE14VcztoYuG13810482024-12-04T13:57:23.517ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vK6RhZ2QnVpbP5x5deNkbwhttps://video.igem.org/lazy-static/thumbnails/f6c696e2-4b0c-43ff-b4c7-781236022b37.jpgIOANNINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/ioannina)https://static.igem.org/peertube/streaming-playlists/hls/f0dd9bbd-bd2d-4b7f-8459-93269160550e/2a586b2e-2b48-40f8-b489-f753875e7797-master.m3u8https://video.igem.org/videos/embed/vK6RhZ2QnVpbP5x5deNkbw16350582024-12-04T16:37:56.466ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5y9Epd16V344Xt6cPPf1dthttps://video.igem.org/lazy-static/thumbnails/33782929-6e5e-4d2c-9c41-6dd9b0db5784.jpgHongKong-CUHK: Judging Session (2024)[Wiki](https://2024.igem.wiki/hongkong-cuhk)https://static.igem.org/peertube/streaming-playlists/hls/24e1b187-4ee6-4b64-a804-ea26b16e5d93/580fd1f4-c62a-457b-b909-aaee26ff1505-master.m3u8https://video.igem.org/videos/embed/5y9Epd16V344Xt6cPPf1dt13970202024-12-04T14:47:38.532ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aMStMnMRu3Kr6wYT2xpJrghttps://video.igem.org/lazy-static/thumbnails/fc1b0e0e-3add-463b-91a7-06c4c7c97e1c.jpgBotchanLab-Tokyo: Judging Session (2024)[Wiki](https://2024.igem.wiki/botchanlab-tokyo)https://static.igem.org/peertube/streaming-playlists/hls/4f49d38d-cedd-42ea-9248-8d6aaae71889/8a131c9c-f1b6-4809-9f36-6d02fd3372f1-master.m3u8https://video.igem.org/videos/embed/aMStMnMRu3Kr6wYT2xpJrg1487072024-12-04T16:29:35.928ZYES2024 Judging SessionsNOhttps://video.igem.org/w/xghBTkgMNuJSq8BeuEkwfahttps://video.igem.org/lazy-static/thumbnails/7391a7b7-f10f-4dfd-b6c1-95c9f4a6c6d2.jpgUChicago: Judging Session (2024)[Wiki](https://2024.igem.wiki/uchicago)https://static.igem.org/peertube/streaming-playlists/hls/fd2db257-cab9-43ec-b3b0-734974b59c05/564da87b-649c-42df-9275-0b6fee716f50-master.m3u8https://video.igem.org/videos/embed/xghBTkgMNuJSq8BeuEkwfa1338062024-12-04T14:03:38.584ZYES2024 Judging SessionsNOhttps://video.igem.org/w/uqo5TH6FeYF6XHQatC5Unghttps://video.igem.org/lazy-static/thumbnails/d6a91da3-7529-4863-9e13-1713832ca86b.jpgBUCT-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/buct-china)https://static.igem.org/peertube/streaming-playlists/hls/e62757c9-5379-4738-8fe9-792e87bc1221/f00c475f-64f0-46e9-b66f-2473796d4d90-master.m3u8https://video.igem.org/videos/embed/uqo5TH6FeYF6XHQatC5Ung15500232024-12-04T13:35:51.197ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2p73aZsygNxriupHWJ7rrihttps://video.igem.org/lazy-static/thumbnails/fa412b2a-f63a-40a4-b048-163c5c7ed0c8.jpgUTokyo: Judging Session (2024)[Wiki](https://2024.igem.wiki/utokyo)https://static.igem.org/peertube/streaming-playlists/hls/0b52f751-2c92-491c-973a-3bf05808234f/80d4224f-8932-4ec0-a383-08835d149f0b-master.m3u8https://video.igem.org/videos/embed/2p73aZsygNxriupHWJ7rri15540202024-12-04T13:31:15.274ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fb5UPkwNnUjHbcut3ToBC3https://video.igem.org/lazy-static/thumbnails/e422a7c6-9cfc-47e5-aceb-61214e8c6f6e.jpgSVCE-CHENNAI: Judging Session (2024)[Wiki](https://2024.igem.wiki/svce-chennai)https://static.igem.org/peertube/streaming-playlists/hls/72c867bc-6e42-4e0c-9f93-eb81c2ad8ab6/7e710a5f-2f18-43d2-913e-06205db276f8-master.m3u8https://video.igem.org/videos/embed/fb5UPkwNnUjHbcut3ToBC31476062024-12-04T13:33:27.929ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vuPCJtCWFhAdNvdnH1z3DJhttps://video.igem.org/lazy-static/thumbnails/ab6cb35d-2fac-4d09-ad01-470ee41bdb8d.jpgNYCU-Formosa: Judging Session (2024)[Wiki](https://2024.igem.wiki/nycu-formosa)https://static.igem.org/peertube/streaming-playlists/hls/eedf33a7-7504-42fc-98b1-abf8b55722dc/9bdeb400-a6ce-462f-8483-9558f38cb5cc-master.m3u8https://video.igem.org/videos/embed/vuPCJtCWFhAdNvdnH1z3DJ1621052024-12-04T13:36:57.058ZYES2024 Judging SessionsNOhttps://video.igem.org/w/p98EqR2sSNyfXjdKMUVA3Bhttps://video.igem.org/lazy-static/thumbnails/606b8b13-1808-415a-a186-11afa75c2647.jpgFreiburg: Judging Session (2024)[Wiki](https://2024.igem.wiki/freiburg)https://static.igem.org/peertube/streaming-playlists/hls/bb64dc8f-2040-4db0-9a41-18bfd31128c7/3f20cef5-e926-40db-b1b4-1e73b349b2e6-master.m3u8https://video.igem.org/videos/embed/p98EqR2sSNyfXjdKMUVA3B14840732024-12-04T14:40:43.685ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3wGBPMUqz4RdNm6ByURNJShttps://video.igem.org/lazy-static/thumbnails/615e514e-f35e-4ddb-9222-4df077c9c567.jpgUPF-Barcelona: Judging Session (2024)[Wiki](https://2024.igem.wiki/upf-barcelona)https://static.igem.org/peertube/streaming-playlists/hls/147b9f37-6944-4695-a068-18cfe9835a56/f88e2a38-9ae0-49ab-9d17-40e559bf618e-master.m3u8https://video.igem.org/videos/embed/3wGBPMUqz4RdNm6ByURNJS1539082024-12-04T16:30:07.559ZYES2024 Judging SessionsNOhttps://video.igem.org/w/55Aam9PP6e5A7TuiQZkHzzhttps://video.igem.org/lazy-static/thumbnails/1434416f-1761-48af-bb39-b23fa6f5bb33.jpgucl: Judging Session (2024)[Wiki](https://2024.igem.wiki/ucl)https://static.igem.org/peertube/streaming-playlists/hls/21089510-9b0b-42b0-bf8e-e400f91f0127/1e7cbdf7-aaa8-4fdb-9a72-589fbfa585f0-master.m3u8https://video.igem.org/videos/embed/55Aam9PP6e5A7TuiQZkHzz1511062024-12-04T12:59:00.449ZYES2024 Judging SessionsNOhttps://video.igem.org/w/hf4sFwJxWcf2ceokPT6Woqhttps://video.igem.org/lazy-static/thumbnails/d41c2398-0ba8-46bd-81f8-a22d0d69be15.jpgCJUH-JLU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/cjuh-jlu-china)https://static.igem.org/peertube/streaming-playlists/hls/8388c37f-075a-420e-ba0f-b4c96479ecc4/9afea860-0d25-47cd-85b9-888c66a4c534-master.m3u8https://video.igem.org/videos/embed/hf4sFwJxWcf2ceokPT6Woq153801172024-12-04T12:58:24.076ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5uyANbgNj5GksFJugkENHGhttps://video.igem.org/lazy-static/thumbnails/d8646a7a-0757-49f7-9228-1a2c2a29fe07.jpgBNU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/bnu-china)https://static.igem.org/peertube/streaming-playlists/hls/2461787a-bed4-4763-a9ae-8f28588f836a/943e2a6c-9985-4edd-9ce8-7aac0118ac89-master.m3u8https://video.igem.org/videos/embed/5uyANbgNj5GksFJugkENHG14660362024-12-04T15:29:35.306ZYES2024 Judging SessionsNOhttps://video.igem.org/w/tM5eTW9ChL5JFU6KPzeicfhttps://video.igem.org/lazy-static/thumbnails/12b59292-10d0-4271-b93b-3f93c800168c.jpgUiOslo-Norway: Judging Session (2024)[Wiki](https://2024.igem.wiki/uioslo-norway)https://static.igem.org/peertube/streaming-playlists/hls/e0f1d381-ec81-4312-9117-1867fb7f10a8/958d2f1a-204f-49c1-9cad-8692a5fb405f-master.m3u8https://video.igem.org/videos/embed/tM5eTW9ChL5JFU6KPzeicf1617072024-12-04T16:30:48.181ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jpu83qM2mZMwUkKbZXdnLchttps://video.igem.org/lazy-static/thumbnails/d0599074-1ec7-4260-b68b-c87861db020d.jpgOKstate: Judging Session (2024)[Wiki](https://2024.igem.wiki/okstate)https://static.igem.org/peertube/streaming-playlists/hls/950beeda-bd44-4394-8e9b-df5781b2e3e7/b43a940a-87f3-4ce5-8ec5-bd6867666eea-master.m3u8https://video.igem.org/videos/embed/jpu83qM2mZMwUkKbZXdnLc1300032024-12-04T13:58:55.041ZYES2024 Judging SessionsNOhttps://video.igem.org/w/rQAQyY7YaM64Q4CsTD2JXshttps://video.igem.org/lazy-static/thumbnails/ac6a78d8-94b8-4e89-8dfe-59ed63865f0d.jpgVIT-V: Judging Session (2024)[Wiki](https://2024.igem.wiki/vit-v)https://static.igem.org/peertube/streaming-playlists/hls/d13da302-d349-461c-8cae-effbfcc0a450/b6896c86-e4e7-43f9-a354-a13d27ee3592-master.m3u8https://video.igem.org/videos/embed/rQAQyY7YaM64Q4CsTD2JXs15560102024-12-04T15:22:09.692ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1JX8z4aUJZbJMcGVucnaiWhttps://video.igem.org/lazy-static/thumbnails/cc8c0fcf-a9a7-4258-8fe1-18040c1f8c0b.jpgKFUPM-Saudi-Arabia: Judging Session (2024)[Wiki](https://2024.igem.wiki/kfupm-saudi-arabia)https://static.igem.org/peertube/streaming-playlists/hls/05ff36b6-d752-4e70-861d-30ac85cb010c/def8d247-6586-4108-aacf-59f6657de82f-master.m3u8https://video.igem.org/videos/embed/1JX8z4aUJZbJMcGVucnaiW1152032024-12-04T13:51:54.465ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gJSTm3uvp67u5BY33m8NaWhttps://video.igem.org/lazy-static/thumbnails/39953ab6-43f8-41a3-a0b6-f01fbbcbaf3d.jpgUNILausanne: Judging Session (2024)[Wiki](https://2024.igem.wiki/unilausanne)https://static.igem.org/peertube/streaming-playlists/hls/7f75ad6a-21f0-4e09-bdfd-b383a5f179d0/6ada7cb6-beaa-479a-9b5c-a86643c1078d-master.m3u8https://video.igem.org/videos/embed/gJSTm3uvp67u5BY33m8NaW1564082024-12-04T13:50:02.534ZYES2024 Judging SessionsNOhttps://video.igem.org/w/piTdmxLqKThud7icJgWvM5https://video.igem.org/lazy-static/thumbnails/be919bf8-3583-41d7-8cfb-7e98174c300f.jpgAlma: Judging Session (2024)[Wiki](https://2024.igem.wiki/alma)https://static.igem.org/peertube/streaming-playlists/hls/bcc164f7-be41-499a-917f-81afb44d312a/1409216a-749b-445f-a3b7-b5867deba17d-master.m3u8https://video.igem.org/videos/embed/piTdmxLqKThud7icJgWvM51306092024-12-04T14:25:24.610ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qniUpkRcfLMCsXvFhpRus8https://video.igem.org/lazy-static/thumbnails/6d2ce563-23e1-4fd0-b491-5ad463a06e80.jpgSCUT-China-S: Judging Session (2024)[Wiki](https://2024.igem.wiki/scut-china-s)https://static.igem.org/peertube/streaming-playlists/hls/c554fafd-5132-4fad-aaae-1c8a815d3533/e94ce899-b673-4b05-b6df-dbd333f25e28-master.m3u8https://video.igem.org/videos/embed/qniUpkRcfLMCsXvFhpRus81538042024-12-04T13:03:31.563ZYES2024 Judging SessionsNOhttps://video.igem.org/w/3q1xrfb9h8KjhV9fVZDimhhttps://video.igem.org/lazy-static/thumbnails/3afbca22-fad1-4724-b9ec-6d808e69e931.jpgCAU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/cau-china)https://static.igem.org/peertube/streaming-playlists/hls/138c7639-44d4-4a0f-9b81-c91100ddbef4/1718d895-02a7-4899-b87c-b73440f21096-master.m3u8https://video.igem.org/videos/embed/3q1xrfb9h8KjhV9fVZDimh14910612024-12-04T13:31:49.033ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ugtRdPdyvZsREuGWycYXNShttps://video.igem.org/lazy-static/thumbnails/0a1e0b65-31ba-48ce-9fa4-41a6fdf58512.jpgBIT: Judging Session (2024)[Wiki](https://2024.igem.wiki/bit)https://static.igem.org/peertube/streaming-playlists/hls/e4e9338c-73f0-4faf-b8cc-a742f4154b4a/3a1c1d0d-0b2a-436f-88c3-7953a1906de1-master.m3u8https://video.igem.org/videos/embed/ugtRdPdyvZsREuGWycYXNS13100122024-12-04T13:32:55.628ZYES2024 Judging SessionsNOhttps://video.igem.org/w/f6XE1CmTqRTK9evZpPPzULhttps://video.igem.org/lazy-static/thumbnails/815c86c7-a76a-4f69-87e7-225efff312cc.jpgSZU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/szu-china)https://static.igem.org/peertube/streaming-playlists/hls/7234f57c-002a-4ef6-b552-16cae4ae6800/2e3d2f8d-5f0b-4766-be06-00cabe8bb95e-master.m3u8https://video.igem.org/videos/embed/f6XE1CmTqRTK9evZpPPzUL15620192024-12-04T14:47:11.486ZYES2024 Judging SessionsNOhttps://video.igem.org/w/n89Cq8dLwfW5NWyB4ps4G3https://video.igem.org/lazy-static/thumbnails/ba8ce86b-4538-43bf-9f37-2edc629e3d38.jpgUMA-MALAGA: Judging Session (2024)[Wiki](https://2024.igem.wiki/uma-malaga)https://static.igem.org/peertube/streaming-playlists/hls/ab0f6f73-a005-4a6c-87b0-502022cfd29e/d26f213c-7881-48af-8f03-0c2df789a43b-master.m3u8https://video.igem.org/videos/embed/n89Cq8dLwfW5NWyB4ps4G31609012024-12-04T14:58:16.965ZYES2024 Judging SessionsNOhttps://video.igem.org/w/qiRGfHYU7h4WHkgKny2XPhhttps://video.igem.org/lazy-static/thumbnails/f8171b7c-5608-4a19-bec2-99048e0f1e51.jpgNENU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/nenu-china)https://static.igem.org/peertube/streaming-playlists/hls/c4d998d2-b4b0-498f-9f03-37e52a9596fa/e3e097b4-bac3-4c60-948f-b05e71265ece-master.m3u8https://video.igem.org/videos/embed/qiRGfHYU7h4WHkgKny2XPh1521092024-12-04T16:30:33.461ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ouTFumFkLWi3zjH1FMZV5jhttps://video.igem.org/lazy-static/thumbnails/ed7395a1-b3d0-4cdd-8385-217e9a46390a.jpgBolivia: Judging Session (2024)[Wiki](https://2024.igem.wiki/bolivia)https://static.igem.org/peertube/streaming-playlists/hls/b631b9bc-667d-496b-a3ea-abb834906e06/e44d2766-0930-46dc-a6fd-9aebc0de71f5-master.m3u8https://video.igem.org/videos/embed/ouTFumFkLWi3zjH1FMZV5j1569062024-12-04T13:04:04.874ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vAJnwadHbvzta6YwF8PVGphttps://video.igem.org/lazy-static/thumbnails/93e8c962-566d-4f1a-9ac7-51d0d4f045a7.jpgCCU-Taiwan: Judging Session (2024)[Wiki](https://2024.igem.wiki/ccu-taiwan)https://static.igem.org/peertube/streaming-playlists/hls/efb26be0-b0fd-4632-9f51-ecd186ea9043/61de380b-71a3-4965-96cf-60236bbe94bd-master.m3u8https://video.igem.org/videos/embed/vAJnwadHbvzta6YwF8PVGp15610182024-12-04T14:05:44.161ZYES2024 Judging SessionsNOhttps://video.igem.org/w/pBWLySvwKw5uPviDFHjM22https://video.igem.org/lazy-static/thumbnails/56f766e3-5ba8-4faf-8d57-2073b0e12f9e.jpgUSTC-Software: Judging Session (2024)[Wiki](https://2024.igem.wiki/ustc-software)https://static.igem.org/peertube/streaming-playlists/hls/bf46f92d-80fb-420f-bb2b-b49de0c8960f/bb483041-85f5-44fa-8b9f-efbb39aada16-master.m3u8https://video.igem.org/videos/embed/pBWLySvwKw5uPviDFHjM221493022024-12-04T14:07:41.729ZYES2024 Judging SessionsNOhttps://video.igem.org/w/pjeutRiR7VKYMMonLC5VXEhttps://video.igem.org/lazy-static/thumbnails/7efe71e4-8976-40ff-a34b-6aedab9ddadb.jpgNJTech-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/njtech-china)https://static.igem.org/peertube/streaming-playlists/hls/bccde424-d4ff-43ec-a236-f49e40e72cb0/03f059ca-1a4f-42df-8181-44b9127d97c0-master.m3u8https://video.igem.org/videos/embed/pjeutRiR7VKYMMonLC5VXE13780292024-12-04T14:29:06.759ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mGv5ktcFFCE9AcxyKNBf3ehttps://video.igem.org/lazy-static/thumbnails/ff8eb31e-647b-4475-9fbf-9496c21eed62.jpgNEFU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/nefu-china)https://static.igem.org/peertube/streaming-playlists/hls/a79e7123-d3ca-4cce-99e7-9f6c6ad78331/56961b36-7fb2-4336-99fd-8b38c4dfa527-master.m3u8https://video.igem.org/videos/embed/mGv5ktcFFCE9AcxyKNBf3e14730282024-12-04T13:53:10.923ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6ms1DKU9VwfpkJL3pE6GjBhttps://video.igem.org/lazy-static/thumbnails/96d8fe89-fe74-475a-95d0-39acd560f5fc.jpgUnivLyon1-INSALyon: Judging Session (2024)[Wiki](https://2024.igem.wiki/univlyon1-insalyon)https://static.igem.org/peertube/streaming-playlists/hls/2b589943-7f2b-4888-9cf6-ab1dfe6c74df/70fe3904-cf37-45c5-a6de-e6feb23178e6-master.m3u8https://video.igem.org/videos/embed/6ms1DKU9VwfpkJL3pE6GjB1526052024-12-04T15:26:38.690ZYES2024 Judging SessionsNOhttps://video.igem.org/w/mdRH94Gmk6UPu6SN3TTmJThttps://video.igem.org/lazy-static/thumbnails/d2a24e91-9017-4b34-b89c-aa798ab76baf.jpgREC-CHENNAI: Judging Session (2024)[Wiki](https://2024.igem.wiki/rec-chennai)https://static.igem.org/peertube/streaming-playlists/hls/a3c25537-a6f1-4d62-9438-fc7d3bd1e16f/7413a3df-a9ca-4862-95f1-ca20955453a3-master.m3u8https://video.igem.org/videos/embed/mdRH94Gmk6UPu6SN3TTmJT16460292024-12-04T14:22:14.800ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6ryWNSGcqyyVk5gtakGxYhhttps://video.igem.org/lazy-static/thumbnails/1886a264-ab00-4382-8f76-fc1bbc8b8d32.jpgUCopenhagen: Judging Session (2024)[Wiki](https://2024.igem.wiki/ucopenhagen)https://static.igem.org/peertube/streaming-playlists/hls/2c0f9732-18a2-4bc8-9280-6e18987bc16c/455a9ef0-379a-4ead-bad2-3e6ca8ad9aa6-master.m3u8https://video.igem.org/videos/embed/6ryWNSGcqyyVk5gtakGxYh15300102024-12-04T14:09:30.892ZYES2024 Judging SessionsNOhttps://video.igem.org/w/hWqSFXrRwDdE1VPwA3ReGBhttps://video.igem.org/lazy-static/thumbnails/9c68cfbc-3281-46b8-999e-1b5310c328c3.jpgTongji-Software: Judging Session (2024)[Wiki](https://2024.igem.wiki/tongji-software)https://static.igem.org/peertube/streaming-playlists/hls/892bb614-bdd1-4287-bc02-88b94b48350f/6023b842-8659-493a-a1cd-c9f4ee9515c3-master.m3u8https://video.igem.org/videos/embed/hWqSFXrRwDdE1VPwA3ReGB16200112024-12-04T13:58:07.746ZYES2024 Judging SessionsNOhttps://video.igem.org/w/pLjsKgHriH4DKXsmaqacSkhttps://video.igem.org/lazy-static/thumbnails/262398e7-31d4-4237-849d-9750322f1ae9.jpgMacquarieUni: Judging Session (2024)[Wiki](https://2024.igem.wiki/macquarieuni)https://static.igem.org/peertube/streaming-playlists/hls/c0724ac9-bcc1-4d2c-964b-82c36347027b/f10d0e30-6256-4da6-bc01-096755ab4a4a-master.m3u8https://video.igem.org/videos/embed/pLjsKgHriH4DKXsmaqacSk1579012024-12-04T13:54:53.445ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fNiEEEnAKnL8U4ZSCBJ8dAhttps://video.igem.org/lazy-static/thumbnails/6024f119-3173-4db7-a0fb-91cb6900f087.jpgBangkok-NMH: Judging Session (2024)[Wiki](https://2024.igem.wiki/bangkok-nmh)https://static.igem.org/peertube/streaming-playlists/hls/77d70ac8-f8bb-4dd6-a9a4-331ca9304316/7cacdd94-91df-41f6-a282-f4884cc95253-master.m3u8https://video.igem.org/videos/embed/fNiEEEnAKnL8U4ZSCBJ8dA14020142024-12-04T14:07:58.088ZYES2024 Judging SessionsNOhttps://video.igem.org/w/kfij7FaSEqiCa9NSzEfyWehttps://video.igem.org/lazy-static/thumbnails/cefb115a-d71c-493b-b2aa-1c70e27da517.jpgAustin-utexas: Judging Session (2024)[Wiki](https://2024.igem.wiki/austin-utexas)https://static.igem.org/peertube/streaming-playlists/hls/9bdcb767-6a12-459d-8855-87757b885e79/6111a668-2ac3-4adc-8657-0d8264389159-master.m3u8https://video.igem.org/videos/embed/kfij7FaSEqiCa9NSzEfyWe14940292024-12-04T13:06:18.835ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ezdm19E2kXu3M9Gw4xNCshhttps://video.igem.org/lazy-static/thumbnails/e7d074ca-954a-492b-806b-05121128886f.jpgUVU-Utah-2: Judging Session (2024)[Wiki](https://2024.igem.wiki/uvu-utah-2)https://static.igem.org/peertube/streaming-playlists/hls/6de9f46c-f427-4272-9f29-c09bf5373984/2a6d1c33-9a1a-4edd-8d41-56a22a797938-master.m3u8https://video.igem.org/videos/embed/ezdm19E2kXu3M9Gw4xNCsh15580162024-12-04T23:03:07.154ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7FnZWPRzRrYJeJgVtcJrsthttps://video.igem.org/lazy-static/thumbnails/088ab83f-5c2b-40d9-b0a8-4fbcddcb461b.jpgPrinceton: Judging Session (2024)[Wiki](https://2024.igem.wiki/princeton)https://static.igem.org/peertube/streaming-playlists/hls/36166579-d0fb-411a-a8e5-c9b651b28d63/8405c3a8-2d38-46c1-ae35-28af319f6390-master.m3u8https://video.igem.org/videos/embed/7FnZWPRzRrYJeJgVtcJrst1669082024-12-04T16:30:55.329ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5gQ8BXoYCpXYBa9Uu529u8https://video.igem.org/lazy-static/thumbnails/a173c9f9-b80e-4570-9214-509d22023a06.jpgABOA: Judging Session (2024)[Wiki](https://2024.igem.wiki/aboa)https://static.igem.org/peertube/streaming-playlists/hls/229a5f8a-64c2-427a-ae3f-713cfd05d367/db224d0f-2526-44a5-bd99-0d0952e1b782-master.m3u8https://video.igem.org/videos/embed/5gQ8BXoYCpXYBa9Uu529u815610112024-12-04T14:45:36.809ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2AFBzKYW5k13hToAtHB2GFhttps://video.igem.org/lazy-static/thumbnails/99a112f8-7e63-42c1-a0ca-1838587468cf.jpgNJU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/nju-china)https://static.igem.org/peertube/streaming-playlists/hls/0cf0d6ea-8e8d-4cfa-8087-286f8c668fc3/348f6c4a-3ef0-4bb8-bd61-b5bff8447fa8-master.m3u8https://video.igem.org/videos/embed/2AFBzKYW5k13hToAtHB2GF18720362024-12-04T16:50:17.222ZYES2024 Judging SessionsNOhttps://video.igem.org/w/x4LaGCvSYQGoMMeRqFp8GDhttps://video.igem.org/lazy-static/thumbnails/2a2a4fbd-27a0-46a1-9e4c-e83ae1c71949.jpgSJTU-Software: Judging Session (2024)[Wiki](https://2024.igem.wiki/sjtu-software)https://static.igem.org/peertube/streaming-playlists/hls/fb91bfb1-aa12-47e5-8b87-d3496e1354f9/b4a75dc5-58f5-4759-be89-1060ffad5c75-master.m3u8https://video.igem.org/videos/embed/x4LaGCvSYQGoMMeRqFp8GD14960132024-12-04T15:15:24.780ZYES2024 Judging SessionsNOhttps://video.igem.org/w/cK4uuRGfBgGjFmZC5CWdgghttps://video.igem.org/lazy-static/thumbnails/e8a74e2d-060f-41ab-9810-0fe344dee7b8.jpgTecCEM: Judging Session (2024)[Wiki](https://2024.igem.wiki/teccem)https://static.igem.org/peertube/streaming-playlists/hls/5f17a8b3-1536-4d61-8080-8194de542bd5/5ba15434-c2c7-4918-b654-cc469de47723-master.m3u8https://video.igem.org/videos/embed/cK4uuRGfBgGjFmZC5CWdgg16120142024-12-04T13:25:25.392ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ugFPuTWZwpHY7d3pfFtun3https://video.igem.org/lazy-static/thumbnails/3b6b0914-c00e-4bf0-81a1-69a57c9fa7b1.jpgNPU-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/npu-china)https://static.igem.org/peertube/streaming-playlists/hls/e4f0940c-c730-4d02-a331-cfbc23f507dc/4c134d01-e211-4746-80f4-63bccff34f70-master.m3u8https://video.igem.org/videos/embed/ugFPuTWZwpHY7d3pfFtun31619092024-12-04T14:27:14.744ZYES2024 Judging SessionsNOhttps://video.igem.org/w/oZTWXrYuSk2aNRceWcUoDYhttps://video.igem.org/lazy-static/thumbnails/ef5b9bbe-cb62-44fe-904e-8293ce4c203c.jpgNanjing-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/nanjing-china)https://static.igem.org/peertube/streaming-playlists/hls/ba3e758e-704f-471f-b8b5-e0e227741702/f1c252cb-77bd-4876-874a-b3ef41aa889c-master.m3u8https://video.igem.org/videos/embed/oZTWXrYuSk2aNRceWcUoDY14240262024-12-04T14:22:57.989ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6u2adEhjedGzjFzPexhLK5https://video.igem.org/lazy-static/thumbnails/4be30589-cf84-48a0-9829-7c91fe585ddf.jpgIIT-Madras: Judging Session (2024)[Wiki](https://2024.igem.wiki/iit-madras)https://static.igem.org/peertube/streaming-playlists/hls/2c673bab-1929-4043-82b9-5311a06d7bc2/76405c4f-d243-4e13-80f5-f78008b7cd1e-master.m3u8https://video.igem.org/videos/embed/6u2adEhjedGzjFzPexhLK514970162024-12-04T14:44:59.203ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wAagRoggwsykLrp6RkXHLLhttps://video.igem.org/lazy-static/thumbnails/63b80b62-cc93-45b2-9e99-0e02f8547542.jpgTec-Chihuahua: Judging Session (2024)[Wiki](https://2024.igem.wiki/tec-chihuahua)https://static.igem.org/peertube/streaming-playlists/hls/f7b729b0-d255-48b1-a1ec-d4e7a6528d10/f7c98972-8584-41da-b460-79662b42d9d1-master.m3u8https://video.igem.org/videos/embed/wAagRoggwsykLrp6RkXHLL15430222024-12-04T14:24:35.048ZYES2024 Judging SessionsNOhttps://video.igem.org/w/pemAcmpUPSqhB96pQmFgRuhttps://video.igem.org/lazy-static/thumbnails/3ed41340-444f-4062-b0a3-467e2d73e99f.jpgUESTC-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/uestc-china)https://static.igem.org/peertube/streaming-playlists/hls/bc1f8c06-3c4f-4608-a224-e033c47ef9ea/41c533c2-3ac8-4585-ade4-5cf7750113b4-master.m3u8https://video.igem.org/videos/embed/pemAcmpUPSqhB96pQmFgRu15230232024-12-04T15:18:53.608ZYES2024 Judging SessionsNOhttps://video.igem.org/w/8q3VxCm7WPZvCZB5txVrznhttps://video.igem.org/lazy-static/thumbnails/b2582e7f-8378-451f-a6d9-e4a30c16fe28.jpgTianjin: Judging Session (2024)[Wiki](https://2024.igem.wiki/tianjin)https://static.igem.org/peertube/streaming-playlists/hls/3c0b9f61-92df-43a1-b4df-7b8cddb84cab/adb94855-ffda-4167-b006-f58420b3a096-master.m3u8https://video.igem.org/videos/embed/8q3VxCm7WPZvCZB5txVrzn1482092024-12-04T16:31:48.337ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ee3T7Uk6DrdMnos3c2BwTzhttps://video.igem.org/lazy-static/thumbnails/de0c123d-3ab9-4330-844a-479238f39fa9.jpgBGI-MammothEdu-East: Judging Session (2024)[Wiki](https://2024.igem.wiki/bgi-mammothedu-east)https://static.igem.org/peertube/streaming-playlists/hls/6b193f4e-8d71-4aa1-80a0-a1db2bc85dcf/83886886-e474-4cb9-8d29-a92e53807428-master.m3u8https://video.igem.org/videos/embed/ee3T7Uk6DrdMnos3c2BwTz15800182024-12-04T13:41:19.127ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gAD3BFzSek7W8rd7sNmqbdhttps://video.igem.org/lazy-static/thumbnails/2d001f60-f56a-47c4-8501-1dea4af2e833.jpgSUSTechOCEAN: Judging Session (2024)[Wiki](https://2024.igem.wiki/sustechocean)https://static.igem.org/peertube/streaming-playlists/hls/7e4f32ab-62fc-4806-bccb-0d9e8b881e70/9dec8c24-0515-41c1-ae34-c72cc560a0d2-master.m3u8https://video.igem.org/videos/embed/gAD3BFzSek7W8rd7sNmqbd1681052024-12-04T16:33:48.667ZYES2024 Judging SessionsNOhttps://video.igem.org/w/x3JG5mQj2hVZiNrHt8tz1vhttps://video.igem.org/lazy-static/thumbnails/77c74d4d-2840-4319-ab21-48b5ee7fb23a.jpgBGI-MammothEdu-South: Judging Session (2024)[Wiki](https://2024.igem.wiki/bgi-mammothedu-south)https://static.igem.org/peertube/streaming-playlists/hls/fb6d1861-30bf-43ff-88a3-790d9fc13209/578ad29f-dd2c-4844-8a95-aaa5ca1e2986-master.m3u8https://video.igem.org/videos/embed/x3JG5mQj2hVZiNrHt8tz1v15690112024-12-04T15:32:37.249ZYES2024 Judging SessionsNOhttps://video.igem.org/w/xmA5TKxGQTpNzf5ng6fFiThttps://video.igem.org/lazy-static/thumbnails/69f31afc-2c25-49d8-b140-2e67901f4f8c.jpgIM-PANAMA: Judging Session (2024)[Wiki](https://2024.igem.wiki/im-panama)https://static.igem.org/peertube/streaming-playlists/hls/fdeb2dd8-97eb-4535-a50a-ed33708a4da9/1840d0bd-92a3-4fdb-b8a3-7704f2885b89-master.m3u8https://video.igem.org/videos/embed/xmA5TKxGQTpNzf5ng6fFiT1389032024-12-04T16:31:40.678ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fuBt7cKS9NzZxnfE1QhDSEhttps://video.igem.org/lazy-static/thumbnails/1cb09610-fd11-45b4-88ba-75c25c66bae5.jpgHongKong-UCCKE: Judging Session (2024)[Wiki](https://2024.igem.wiki/hongkong-uccke)https://static.igem.org/peertube/streaming-playlists/hls/755e9fd4-98e3-4a20-8306-a69e373f8eae/30baacc0-db78-4fb3-98d5-5ed89e6557e8-master.m3u8https://video.igem.org/videos/embed/fuBt7cKS9NzZxnfE1QhDSE14450192024-12-04T15:25:19.785ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vAStYBR4vjWi22AePHP4gihttps://video.igem.org/lazy-static/thumbnails/19523a5c-72fe-4b1d-aa70-5b5e675f8011.jpgCNPEM-BRAZIL: Judging Session (2024)[Wiki](https://2024.igem.wiki/cnpem-brazil)https://static.igem.org/peertube/streaming-playlists/hls/efb76b90-62db-4d0d-a008-94a17d2b2d6b/1a9dff2e-f4c9-47a7-9969-2652d88c41c1-master.m3u8https://video.igem.org/videos/embed/vAStYBR4vjWi22AePHP4gi14610152024-12-04T14:18:09.271ZYES2024 Judging SessionsNOhttps://video.igem.org/w/9WeZEEvcRWNBs1KZohv8r7https://video.igem.org/lazy-static/thumbnails/ef0734b6-6d5b-44fd-b2c8-226efb4824c7.jpgSydney-Australia: Judging Session (2024)[Wiki](https://2024.igem.wiki/sydney-australia)https://static.igem.org/peertube/streaming-playlists/hls/485be5a9-ed9a-48bc-b3b8-4d3d71e08cb4/51b539fe-9241-4cec-8cc3-1a9ccecf302d-master.m3u8https://video.igem.org/videos/embed/9WeZEEvcRWNBs1KZohv8r7158401452024-12-04T20:14:25.412ZYES2024 Judging SessionsNOhttps://video.igem.org/w/5R2GECWyJ6cj8miJyeaoiuhttps://video.igem.org/lazy-static/thumbnails/2858a1bc-9e3a-4ce7-bfef-f972740e0613.jpgBarcelona-UB: Judging Session (2024)[Wiki](https://2024.igem.wiki/barcelona-ub)https://static.igem.org/peertube/streaming-playlists/hls/273d0c38-5dbb-4cd8-817c-8695dbf3c146/264b7fbd-06e6-4073-abb5-97557e891cfc-master.m3u8https://video.igem.org/videos/embed/5R2GECWyJ6cj8miJyeaoiu13750142024-12-04T16:32:06.927ZYES2024 Judging SessionsNOhttps://video.igem.org/w/bD69Fhd46bzSVRT3tACfKHhttps://video.igem.org/lazy-static/thumbnails/e7ec2d2b-2cef-4b56-8533-cbcbb360870a.jpgSquirrel-Beijing-I: Judging Session (2024)[Wiki](https://2024.igem.wiki/squirrel-beijing-i)https://static.igem.org/peertube/streaming-playlists/hls/56291463-d397-4428-ba15-9b001ea19a7f/b385cb5a-4a0c-43f8-a5a9-1d950f303b4d-master.m3u8https://video.igem.org/videos/embed/bD69Fhd46bzSVRT3tACfKH1295062024-12-04T13:40:17.091ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1cfNeSCPFJotrBfnBuGHXBhttps://video.igem.org/lazy-static/thumbnails/bf38b04d-df0c-4fbf-9c8b-bcfa848954fb.jpgSYPHU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/syphu-china)https://static.igem.org/peertube/streaming-playlists/hls/01924cf3-2a2a-468a-982b-9efd446e5f7d/c65db64e-2ca5-4097-8d66-ecf0e459c86f-master.m3u8https://video.igem.org/videos/embed/1cfNeSCPFJotrBfnBuGHXB14870222024-12-04T15:32:54.887ZYES2024 Judging SessionsNOhttps://video.igem.org/w/owcHtJBPEXvBuVjiHEjKwWhttps://video.igem.org/lazy-static/thumbnails/e84907f4-35a5-4634-95de-7cadb76f1c07.jpgXJTLU-Software: Judging Session (2024)[Wiki](https://2024.igem.wiki/xjtlu-software)https://static.igem.org/peertube/streaming-playlists/hls/b6609555-3f09-4b28-bd10-3b51ca3cb21e/653d1a72-cee7-4462-b9c6-2c250b3a7dd6-master.m3u8https://video.igem.org/videos/embed/owcHtJBPEXvBuVjiHEjKwW16610162024-12-04T17:22:16.278ZYES2024 Judging SessionsNOhttps://video.igem.org/w/m2RP8DeimcG1zqymNV94Vkhttps://video.igem.org/lazy-static/thumbnails/e64402d5-8866-4b86-bb91-b499c24605e6.jpgLund: Judging Session (2024)[Wiki](https://2024.igem.wiki/lund)https://static.igem.org/peertube/streaming-playlists/hls/a239370f-d698-49ef-beee-ae8e27a8cad1/ea6111c4-15c7-4785-a1ef-7f5f50bd2704-master.m3u8https://video.igem.org/videos/embed/m2RP8DeimcG1zqymNV94Vk1518082024-12-04T15:11:46.481ZYES2024 Judging SessionsNOhttps://video.igem.org/w/4CLNUKhpqDR5Hk1FHRXuc1https://video.igem.org/lazy-static/thumbnails/8cd3e9f9-0308-42d2-bb11-f72e27fb0975.jpgNYU-New-York: Judging Session (2024)[Wiki](https://2024.igem.wiki/nyu-new-york)https://static.igem.org/peertube/streaming-playlists/hls/1d6dce5c-27e7-4a81-bdcf-7df0ba1f8076/27dab7e6-9711-46aa-9ce3-acb992c52c50-master.m3u8https://video.igem.org/videos/embed/4CLNUKhpqDR5Hk1FHRXuc11589022024-12-04T14:51:31.324ZYES2024 Judging SessionsNOhttps://video.igem.org/w/uzG3yVUaULChrZ84irELA5https://video.igem.org/lazy-static/thumbnails/e8021b57-9641-43e1-9500-3d8f8ce8d72c.jpgNMU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/nmu-china)https://static.igem.org/peertube/streaming-playlists/hls/e7741ae4-7aec-449f-bb85-04b03ed62148/954d5950-12f3-4327-b718-b0b8a1df02e5-master.m3u8https://video.igem.org/videos/embed/uzG3yVUaULChrZ84irELA512450222024-12-04T14:33:18.482ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jpFNPQMz5wUQCQTNGidkdkhttps://video.igem.org/lazy-static/thumbnails/0f7be7f8-a8bb-4acd-9d27-d839b6be129a.jpgToulouse-INSA-UPS: Judging Session (2024)[Wiki](https://2024.igem.wiki/toulouse-insa-ups)https://static.igem.org/peertube/streaming-playlists/hls/9513227d-5de5-413b-b642-ec983966c467/44168753-e319-42a0-95a3-7c8c97af76f8-master.m3u8https://video.igem.org/videos/embed/jpFNPQMz5wUQCQTNGidkdk12140352024-12-04T14:28:36.041ZYES2024 Judging SessionsNOhttps://video.igem.org/w/2MhsQxL5S4f8Vy6QEkwEmhhttps://video.igem.org/lazy-static/thumbnails/918bb6cf-9630-4f47-b63e-515265cb95cd.jpgUSP-EEL-Brazil: Judging Session (2024)[Wiki](https://2024.igem.wiki/usp-eel-brazil)https://static.igem.org/peertube/streaming-playlists/hls/0e6bc0f9-f22c-43e9-bd9f-8dc22bb41510/dca0e8f0-10ba-4cf8-baa6-f04472cbb805-master.m3u8https://video.igem.org/videos/embed/2MhsQxL5S4f8Vy6QEkwEmh15140162024-12-04T14:42:34.266ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wRFKjUAqzo69WbdYbjLLaRhttps://video.igem.org/lazy-static/thumbnails/6778a444-bf62-4642-8e94-d8a49b66e45c.jpgCUHK-HongKong-SBS: Judging Session (2024)[Wiki](https://2024.igem.wiki/cuhk-hongkong-sbs)https://static.igem.org/peertube/streaming-playlists/hls/f9e21978-1456-40e0-a138-70f1250ad0ab/06243afc-9f81-4501-8864-38827751ffdf-master.m3u8https://video.igem.org/videos/embed/wRFKjUAqzo69WbdYbjLLaR1388032024-12-04T14:19:37.361ZYES2024 Judging SessionsNOhttps://video.igem.org/w/a4r3E4hYGPYfhSWEvFd51thttps://video.igem.org/lazy-static/thumbnails/d553c937-16e6-4422-a2b2-6c82ea866dc3.jpgAFMU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/afmu-china)https://static.igem.org/peertube/streaming-playlists/hls/495cea0d-9806-4bab-9619-fe0876b1bd9b/c394c573-f3de-422e-8a84-df3159fe88fe-master.m3u8https://video.igem.org/videos/embed/a4r3E4hYGPYfhSWEvFd51t14770402024-12-04T16:49:27.582ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6R1zN9ePFQUtXu1A58ZDRyhttps://video.igem.org/lazy-static/thumbnails/5a6de47b-6b2c-40a9-a9d4-4b3870a03509.jpgANU: Judging Session (2024)[Wiki](https://2024.igem.wiki/anu)https://static.igem.org/peertube/streaming-playlists/hls/2f557f43-4900-48e9-a538-4708b27528c6/1194856f-1161-4c38-b114-b8677fb894d9-master.m3u8https://video.igem.org/videos/embed/6R1zN9ePFQUtXu1A58ZDRy15320102024-12-05T01:28:07.476ZYES2024 Judging SessionsNOhttps://video.igem.org/w/tcEM77XigMbTHTEb4Hnhzphttps://video.igem.org/lazy-static/thumbnails/3b2bfa43-7028-4900-a36a-a827fa871e83.jpgJIASHU-Shanghai: Judging Session (2024)[Wiki](https://2024.igem.wiki/jiashu-shanghai)https://static.igem.org/peertube/streaming-playlists/hls/dc47d2a8-95c7-4ea8-87d6-11c4e4024e09/2cfa8484-a384-4281-bdbe-306743571801-master.m3u8https://video.igem.org/videos/embed/tcEM77XigMbTHTEb4Hnhzp1493062024-12-04T16:32:41.300ZYES2024 Judging SessionsNOhttps://video.igem.org/w/awR4G4CkUq1Pnj6YEiQuvihttps://video.igem.org/lazy-static/thumbnails/6839bdf1-4668-4b7e-a4bf-53fc21492fc3.jpgCityU-HongKong: Judging Session (2024)[Wiki](https://2024.igem.wiki/cityu-hongkong)https://static.igem.org/peertube/streaming-playlists/hls/4d30cc2e-16c8-4afd-9d38-fc6d74d3b463/230bee9c-ece3-4408-8361-8863594d27da-master.m3u8https://video.igem.org/videos/embed/awR4G4CkUq1Pnj6YEiQuvi16380662024-12-04T20:08:38.475ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aY524x5spFXY9dTdXdWowhhttps://video.igem.org/lazy-static/thumbnails/66aa2c45-42d5-419e-8f33-cad7eaf6ef13.jpgNNU-CHINA: Judging Session (2024)[Wiki](https://2024.igem.wiki/nnu-china)https://static.igem.org/peertube/streaming-playlists/hls/50b6601b-908a-47f5-af13-5eac70497504/0b950e2c-721b-4646-92f1-ec7c4399db36-master.m3u8https://video.igem.org/videos/embed/aY524x5spFXY9dTdXdWowh15740302024-12-04T16:58:52.555ZYES2024 Judging SessionsNOhttps://video.igem.org/w/c3ZTMq69cN8frWVA6pzb5Xhttps://video.igem.org/lazy-static/thumbnails/86306d3a-71b4-46af-a0cf-312059db73bf.jpgDKU: Judging Session (2024)[Wiki](https://2024.igem.wiki/dku)https://static.igem.org/peertube/streaming-playlists/hls/597fb0c5-6781-4e83-a905-79f21638ed3f/75a0511a-1a5f-429b-acd6-b5d07b076214-master.m3u8https://video.igem.org/videos/embed/c3ZTMq69cN8frWVA6pzb5X1560032024-12-02T17:38:29.977ZYES2024 Judging SessionsNOhttps://video.igem.org/w/sjdPqyc97WqNHa5zahCbmnhttps://video.igem.org/lazy-static/thumbnails/92f49522-6007-45ac-8bda-94632a6063c1.jpgSubCat-Union: Judging Session (2024)[Wiki](https://2024.igem.wiki/subcat-union)https://static.igem.org/peertube/streaming-playlists/hls/d518e465-7d50-4a5b-860e-20a0cb2c0c85/d73446b9-d62c-4ef1-985e-a91226879c47-master.m3u8https://video.igem.org/videos/embed/sjdPqyc97WqNHa5zahCbmn1301062024-12-04T19:43:31.001ZYES2024 Judging SessionsNOhttps://video.igem.org/w/soYfqurSohofgjdbPzHAYXhttps://video.igem.org/lazy-static/thumbnails/114d2660-d788-4003-af3a-2d2534de4950.jpgKULeuven: Judging Session (2024)[Wiki](https://2024.igem.wiki/kuleuven)https://static.igem.org/peertube/streaming-playlists/hls/d5c2a1ef-f602-42c7-83a6-3c8f89152007/ad038b32-b964-4db3-b84e-67829d0cd842-master.m3u8https://video.igem.org/videos/embed/soYfqurSohofgjdbPzHAYX1562092024-12-04T14:41:23.671ZYES2024 Judging SessionsNOhttps://video.igem.org/w/i1sPyu6sAYM3yjt71TT51qhttps://video.igem.org/lazy-static/thumbnails/d217dabd-6734-4d21-af65-ac624b38630c.jpgLatvia-Riga: Judging Session (2024)[Wiki](https://2024.igem.wiki/latvia-riga)https://static.igem.org/peertube/streaming-playlists/hls/89bbe2b8-d634-4339-9d86-6bb8455f07d0/669c32cc-e2f6-484a-afcf-1be117f9caee-master.m3u8https://video.igem.org/videos/embed/i1sPyu6sAYM3yjt71TT51q1480052024-12-04T16:33:00.423ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vLC452afP1KdUqfrUK4QC6https://video.igem.org/lazy-static/thumbnails/ce421b00-b835-49fa-802c-b8d3e13a1832.jpgHKPOLYU: Judging Session (2024)[Wiki](https://2024.igem.wiki/hkpolyu)https://static.igem.org/peertube/streaming-playlists/hls/f113f725-ccd7-46e0-9f12-cc1a16051ad5/19abecee-b115-4aea-b527-60e711530e86-master.m3u8https://video.igem.org/videos/embed/vLC452afP1KdUqfrUK4QC615270732024-12-04T16:56:16.824ZYES2024 Judging SessionsNOhttps://video.igem.org/w/rj6dbarPsfJ12FpwNd4T8Uhttps://video.igem.org/lazy-static/thumbnails/f4773ecb-8937-4b62-b582-a7ac5e179d82.jpgOxford: Judging Session (2024)[Wiki](https://2024.igem.wiki/oxford)https://static.igem.org/peertube/streaming-playlists/hls/ccfb10a9-7213-42c4-bea1-0e626ee90bee/0acaa7df-f661-49da-83b3-b2ca6ef64fbb-master.m3u8https://video.igem.org/videos/embed/rj6dbarPsfJ12FpwNd4T8U17430222024-12-04T13:45:44.454ZYES2024 Judging SessionsNOhttps://video.igem.org/w/sACgSDfGXSYsf5XdEoGt7nhttps://video.igem.org/lazy-static/thumbnails/e7f41657-0796-4ae8-a44b-cc54f6b6a8e7.jpgIIT-Bombay: Judging Session (2024)[Wiki](https://2024.igem.wiki/iit-bombay)https://static.igem.org/peertube/streaming-playlists/hls/d7633f6e-e962-4607-a413-1c01e7f8d41d/9530ce98-f621-4f7c-831d-97da87a23a50-master.m3u8https://video.igem.org/videos/embed/sACgSDfGXSYsf5XdEoGt7n12570252024-12-04T16:32:20.207ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1pWhRLbmA2fTzTAc23b8VFhttps://video.igem.org/lazy-static/thumbnails/ff4a734f-9b0d-4d64-a2ff-d5a0b134ef99.jpgCHINA-HUBU-WUHAN: Judging Session (2024)[Wiki](https://2024.igem.wiki/china-hubu-wuhan)https://static.igem.org/peertube/streaming-playlists/hls/03579084-076a-409f-bb8a-ae40bb9f0035/5f339dfe-85fc-465d-bbad-65aa681759d1-master.m3u8https://video.igem.org/videos/embed/1pWhRLbmA2fTzTAc23b8VF17110192024-12-04T20:16:20.983ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wBiZrSYVHyw9ean9bAhuD6https://video.igem.org/lazy-static/thumbnails/b3ddea09-4d61-411c-a00a-9123c1f4b30f.jpgHamburg: Judging Session (2024)[Wiki](https://2024.igem.wiki/hamburg)https://static.igem.org/peertube/streaming-playlists/hls/f7e0475c-c608-4d76-aefe-614dd2fce8b7/147c5a0f-2d6d-4f9a-b98e-a60a3f03d569-master.m3u8https://video.igem.org/videos/embed/wBiZrSYVHyw9ean9bAhuD615130162024-12-04T19:54:49.286ZYES2024 Judging SessionsNOhttps://video.igem.org/w/4y8XhMU1LmKZQqawG8DJA9https://video.igem.org/lazy-static/thumbnails/c0d3073f-badc-49c6-840e-4faf72c2e138.jpgIEA: Judging Session (2024)[Wiki](https://2024.igem.wiki/iea)https://static.igem.org/peertube/streaming-playlists/hls/1cc81e34-ed68-4dad-ad62-534c9788e1dc/2c843f24-f835-4ada-aa83-b50d7e2ca656-master.m3u8https://video.igem.org/videos/embed/4y8XhMU1LmKZQqawG8DJA915600202024-12-04T19:59:53.915ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6KDSKBHSFgrhRvHfiELfeshttps://video.igem.org/lazy-static/thumbnails/c4db12cb-9304-4d84-abf1-7c9404d28252.jpguOttawa: Judging Session (2024)[Wiki](https://2024.igem.wiki/uottawa)https://static.igem.org/peertube/streaming-playlists/hls/2e960448-5e44-44f1-9be5-fa4ad31f6ee4/63d20df1-6f4b-4f3a-a2fa-bb307a9e35eb-master.m3u8https://video.igem.org/videos/embed/6KDSKBHSFgrhRvHfiELfes15590192024-12-02T17:41:27.113ZYES2024 Judging SessionsNOhttps://video.igem.org/w/1hfA9N3UzcrSRT4eVUVcXChttps://video.igem.org/lazy-static/thumbnails/45ac5815-a880-44a7-8494-b4617514ada4.jpgUOregon: Judging Session (2024)[Wiki](https://2024.igem.wiki/uoregon)https://static.igem.org/peertube/streaming-playlists/hls/0244e418-9a43-42d8-a808-cd22683b468e/0507acdb-739a-4522-ae18-b04e0b113ad7-master.m3u8https://video.igem.org/videos/embed/1hfA9N3UzcrSRT4eVUVcXC1481072024-12-04T20:10:41.386ZYES2024 Judging SessionsNOhttps://video.igem.org/w/x69hFi9t7AUsgtFKapyUGohttps://video.igem.org/lazy-static/thumbnails/a7246248-cde6-4ce2-bf8c-426d9670c567.jpgSWUer-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/swuer-china)https://static.igem.org/peertube/streaming-playlists/hls/fbc31feb-a9c5-4f41-bf00-616da82357c6/6e6ff14f-90fe-4ee4-b5eb-8f7fa30249e7-master.m3u8https://video.igem.org/videos/embed/x69hFi9t7AUsgtFKapyUGo17500122024-12-04T20:15:53.442ZYES2024 Judging SessionsNOhttps://video.igem.org/w/fLV3jogiHeYYNdr7M8uHCPhttps://video.igem.org/lazy-static/thumbnails/57d836b5-6930-42f8-8a30-5c80dc4c38c2.jpgBostonU: Judging Session (2024)[Wiki](https://2024.igem.wiki/bostonu)https://static.igem.org/peertube/streaming-playlists/hls/77a55aa9-81b1-4ba8-8ae6-9bd820867c0b/73a0b095-abd4-4506-aee5-68604fb68c8a-master.m3u8https://video.igem.org/videos/embed/fLV3jogiHeYYNdr7M8uHCP15890232024-12-04T22:46:52.916ZYES2024 Judging SessionsNOhttps://video.igem.org/w/4hrHE9bM2qmLSE7mVrsYJdhttps://video.igem.org/lazy-static/thumbnails/e0bba02b-d979-4b74-acb2-d2d358c04ac8.jpgUsing Bacillus subtilis as a DNA-Based Biosensor for the Grape Vine Pathogen Plasmopara viticolaPlasmopara viticola, commonly known as downy mildew or Peronospora in Italian, is one of the most destructive pathogens affecting grapevines. Current methods for managing this pathogen rely heavily on the repetitive use of chemical pesticides, which pose significant risks to both the environment and human health in vineyard regions. In this study, we explore the use of genetically modified Bacillus subtilis as a DNA-based biosensor for the early detection of Plasmopara viticola, allowing for proactive disease management before grapevine infection occurs. To prevent direct contact between the modified bacteria and plants, a specialized device was developed to house the biosensors. Additionally, a fiber-optic system incorporating a sol-gel matrix was used to enhance the detection signal, addressing the challenges of signal transmission typically encountered in bioreactor systems. This innovative approach offers a sustainable alternative to current pesticide-dependent strategies, with potential applications in precision viticulture.https://static.igem.org/peertube/streaming-playlists/hls/1a972a6c-f6ea-4d23-b0b0-e1adcf9ab830/7272e074-edd1-4e5e-afae-a38b02a49551-master.m3u8https://video.igem.org/videos/embed/4hrHE9bM2qmLSE7mVrsYJd502082024-12-04T13:44:27.684ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/eaBTSf1cSCMoAMkL5TEaHthttps://video.igem.org/lazy-static/thumbnails/8ae44129-5c7f-4bd9-8474-56a827bcd29c.jpgScabBrewer: Modifying yeast to detoxify deoxynivalenol while brewing beerBeer, a popular alcoholic beverage, uses grains like barley, oats, and wheat, which can be affected by Fusarium head blight (FHB) in warm, humid conditions. FHB, also known as scab, produces mycotoxin DON, posing a threat to human health and economies. It is urged to seek control methods to eliminate DON pollution in foods and feeds. We engineered a new yeast with extrachromosomal plasmids to separately enhance the cell wall adsorption and the DON enzymatic degradation efficiency in Saccharomyces pastorianus. To analyze the molecular mechanism of yeast DON adsorption and discover gene loci related to yeast's ability to adsorb DON, we constructed a model to predict the DON adsorption ability of different yeasts.https://static.igem.org/peertube/streaming-playlists/hls/6a9e9dfb-df8b-4ffd-9487-ccd6d5470dc9/bd97faa7-0ac2-412f-8486-84a958f46b06-master.m3u8https://video.igem.org/videos/embed/eaBTSf1cSCMoAMkL5TEaHt5310102024-12-04T13:46:58.095ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/dVjEK8iNNmQepq7t4stHguhttps://video.igem.org/lazy-static/thumbnails/ae1f2f90-48f5-4731-8c82-5e3bfc4c324a.jpgSurPFASSurPFAS tackles the issue of PFAS contamination, sadly notorious on our territory as well as in many other districts of the world. SurPFAS acts against the pollution of these synthetic chemicals in ground water, with a 360-degree overview on all the aspects involved in the purification process. SurPFAS derives from "surface", as we intend to surface-express two classes of degradative enzymes, laccases and dehalogenases, in Escherichia coli chassis. The best enzymatic candidates will be carefully selected through bioinformatic analysis. Genetic sequences will then be cloned into Escherichia coli, generating two populations of bacteria exposing PFAS-degrading enzymes on their surface. Our system also involves PFAS filtration from ground water and the following desorption from filtering substrates. The gathered PFAS will finally meet our engineered bacteria in a bioreactor, where the breakdown reaction will take place. We have also implemented a novel technology and sensor for PFAS detection throughout our pipeline.https://static.igem.org/peertube/streaming-playlists/hls/689f969a-1943-4e33-8f08-48f7307f9ebe/d3cc5aad-a75e-4c63-921b-c7d32cb83053-master.m3u8https://video.igem.org/videos/embed/dVjEK8iNNmQepq7t4stHgu6180192024-12-04T13:56:23.049ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nGYJoLsZADVZRqBEXoBVdohttps://video.igem.org/lazy-static/thumbnails/6ce5af7b-f69b-49ff-9ed4-e645745d21e3.jpgPETal: Valorizing PET plastic to sandalwood oilThe fashion and cosmetics industries are highly consumer-centric, impacting nearly everyone worldwide. These industries consume vast quantities of raw materials and can significantly harm the environment. Indian sandalwood oil is one such sought-after raw material in the beauty industry. PETal presents a novel solution by integrating plastic waste management with the production of sandalwood oil, using synthetic biology. Using engineered Pseudomonas putida that can metabolise the monomers of polyethylene terephthalate (PET), i.e. terephthalic acid (TPA) and ethylene glycol (EG), we aim to synthesise santalene and santalol, the major components of sandalwood oil. This offers a sustainable alternative to conventional sandalwood oil extraction, reducing the strain on natural populations and providing a novel method for plastic upcycling. By creating a value-added product from PET plastic waste, PETal has the potential to reshape waste management strategies, promote biodiversity conservation, and simultaneously meet the global demands for sandalwood oil.https://static.igem.org/peertube/streaming-playlists/hls/afc89fd3-9af6-467b-b46d-eca6e1925e7a/9aabaeb7-bb84-4abb-a426-c7389e2643c9-master.m3u8https://video.igem.org/videos/embed/nGYJoLsZADVZRqBEXoBVdo5890702024-12-04T13:54:37.638ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/5MXezF6TKtatC4ijFEnHaZhttps://video.igem.org/lazy-static/thumbnails/651e52b1-4c7e-4a23-9c05-b449847a32ec.jpgSynplode: An Innovative Approach to Landmine and UXO ClearancePost-war landmines and unexploded ordinances (UXOs) can cause injuries or death, pollute land and restrict economic activity long after conflicts have ended. Synplode aims to address this problem. We have engineered bacteria designed to detect and break down TNT and RDX, the two most common explosives found in degrading landmines and UXOs. Our solution is designed to achieve three tasks: first, it detects the explosives and signals their presence; second, it breaks down these explosives into non-explosive derivatives; and third, it confirms the UXO is safe. To deploy this system safely and efficiently, we have built an aerial bio-drone capable of dispersing our bacterial solution over contaminated areas. This provides a scalable, cost-effective, and risk-free method for clearing UXOs. We believe that our approach has the potential to revolutionize the demining process, offering hope to communities still living under the threat of landmines and UXOs.https://static.igem.org/peertube/streaming-playlists/hls/26cf1044-5d0f-4342-9f44-88a3189a100f/8c8a57fe-5d9c-4fa3-bd11-f9a446d58f34-master.m3u8https://video.igem.org/videos/embed/5MXezF6TKtatC4ijFEnHaZ6060272024-12-04T13:54:23.003ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vhHx446mrJiRCmPG4bXNAThttps://video.igem.org/lazy-static/thumbnails/2fed6d2f-f444-434a-a4c9-0d5a1324a80e.jpgPET TWINS -PETase The Way to ImplementatioN Success-Concerned about the microplastic problem and uncovering various issues in plastic recycling through numerous interviews, Waseda-Tokyo has proposed PET TWINS (PETase The Way to ImplementatioN Success) as a new approach to realize the practical application of PETase. It consists of two components: the BIND-PETase Module and the ElectroCount Biosafety Module. BIND-PETase Module is expected to promote plastic recycling in the future, contributing actively to waste disposal problems and the resolution of the microplastic issue. Additionally, based on evolutionary engineering insights, Waseda-Tokyo designed BIND-bearPETase and verified its superior functionality through wet experiments, energy simulations, and mathematical models. Furthermore, we introduced the concept of the ElectroCount Biosafety Module, which induces the expression of two genes through electrical input. This system is expected to deal with barriers to the introduction of BIND-PETase, and its feasibility has been validated through mathematical models. The integrated system, PET TWINS, will drive the social implementation of PETase.https://static.igem.org/peertube/streaming-playlists/hls/ed2e84bf-ec1b-4de1-8efe-28cdfbf155f7/b29f0cd5-0b75-49f1-b071-08d665c2369b-master.m3u8https://video.igem.org/videos/embed/vhHx446mrJiRCmPG4bXNAT6300752024-12-04T14:05:53.245ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3YiL6FGTi9tgUUWRN4Aupmhttps://video.igem.org/lazy-static/thumbnails/95250ac7-44e8-4544-a4f1-8851fabe1500.jpgThe Pentacone; Coastal Defense, Engineered by Nature.Coastal erosion and plastic pollution are growing threats to coastlines worldwide, and Ghana is no exception. These environmental challenges have severely impacted communities near the coast, destroying homes and infrastructure, displacing families, and burdening the economy heavily. Despite efforts to address these issues, current solutions have proven ineffective in providing lasting relief. The Sea Titans aim to deliver a groundbreaking and sustainable solution to combat plastic pollution and coastal erosion. Our innovative approach involves the Pentacone, a structure equipped with advanced biotechnology designed to decompose PET plastic in the sea and reduce coastal erosion. This Pentapod is designed to self-regenerate when damaged, ensuring longevity. This circular approach not only cleans our seas but also strengthens coastal defenses. As Sea Titans, we want to create a future where our oceans and coastlines are cleaner, more resilient, safer for coastal communities and contribute to the global fight against pollution and environmental degradation.https://static.igem.org/peertube/streaming-playlists/hls/180edfa5-92fd-499c-b795-b58a069ad1ba/fcd65d15-37d8-4e57-9b87-f6ae129bc1da-master.m3u8https://video.igem.org/videos/embed/3YiL6FGTi9tgUUWRN4Aupm5910112024-12-04T14:05:36.293ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nis9RxjEieMxBT7MRTr8z2https://video.igem.org/lazy-static/thumbnails/d6aa133b-78fc-448f-bb66-61973707e197.jpgDesigning the Next Generation of Proteins for Environmental CleanupProtein design is the state-of-the-art of structural biology, where deep learning techniques are combined with creativity to generate new molecules that can solve real-world problems. Using biodiversity inputs, the B.A.R.B.I.E. Project has expanded from microplastics removal from water stations into a customizable toolbox that, through a novel protein design pipeline, can be modulated to filter any small contaminants on a household scale. Come and learn how we aim to design new paths for a renewable future.https://static.igem.org/peertube/streaming-playlists/hls/ac7fac50-2091-4ad2-86ea-6d7d425bdc6f/d7f46ff2-75dd-4bc2-af75-b7f87a17885d-master.m3u8https://video.igem.org/videos/embed/nis9RxjEieMxBT7MRTr8z2584072024-12-04T13:47:15.301ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/kiVUKFPEEkWJEP3xzmQ7B9https://video.igem.org/lazy-static/thumbnails/7e10aa35-0aaa-493d-b5ac-d44edbf00f25.jpgREPARO: Resolution of Eco-friendly Paper-purification, Alternative Recovery and OptimizationThe rapid population growth has driven heavy demands for paper, leading to extensive deforestation and disturbing the ecological balance, thereby exacerbating the climate crisis. Enhancing the recycling of waste paper can mitigate deforestation, offering a significant contribution to addressing the climate crisis. Inspired by this, our project aims to investigate the current state and challenges of waste paper recycling in our REPARO project, we designed and developed an unprecedented deinking method based on synthetic biology, which could serve as a viable alternative to the chemical method on the industry scale. The implementation of our project holds immense potential to propel technological advancement and industrial upgrading within the waste paper recycling industry. Our project aims to introduce advanced biotechnology and environmental protection concepts to enhance the entire industry's production efficiency, product quality, and environmental protection level, thereby strengthening the industry's competitiveness and promoting the development of the circular economy.https://static.igem.org/peertube/streaming-playlists/hls/9c5e8066-7163-4673-b1df-c84c600f96ee/1caa5cb6-4d0d-4130-8575-ae07e89595b0-master.m3u8https://video.igem.org/videos/embed/kiVUKFPEEkWJEP3xzmQ7B95770422024-12-04T13:52:11.139ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/qceSgQHzsry6nW2ieav2Qnhttps://video.igem.org/lazy-static/thumbnails/7f8547c3-0891-47eb-b1eb-a2e6e342a0fa.jpgNitroBLASTNitroBLAST aims to address the nitrogen crisis by using the unique properties of the "nitroplast," a recently discovered nitrogen-fixing organelle derived from the cyanobacterial endosymbiont UCYN-A. Investigating its relationship with its host, the marine alga Braadurosphaera bigelowii, we identified two UCYN-A transit peptides (uTP1 and uTP2) essential for protein import into the nitroplast. Using bioinformatics, we predicted proteins involved in this transport system. We designed new parts for expressing uTP in S. cerevisiae and C. reinhardtii to investigate its function. Additionally, we isolated UCYN-A and refined a protocol for the fusion of E. coli with S. cerevisiae, hoping that it can be used in the future for the transplantation of nitroplasts into eukaryotic cells. This research lays the groundwork for nitrogen-fixing crops, potentially reducing reliance on synthetic fertilizers and mitigating both environmental and agricultural challengeshttps://static.igem.org/peertube/streaming-playlists/hls/c3ed0e15-7803-4136-b9f9-9647f0942e11/a4ff57e7-ac89-4199-864a-cf989cfc7de6-master.m3u8https://video.igem.org/videos/embed/qceSgQHzsry6nW2ieav2Qn675012024-12-04T14:04:42.836ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/6rEDHPmJJgQgdnjzhturFqhttps://video.igem.org/lazy-static/thumbnails/1fe95dfa-6e9f-46fc-9fae-9a2c41212263.jpgPACIFYItchiness, or pruritus, is a common discomfort that can escalate into a persistent and challenging issue when caused by specific factors like Staphylococcus aureus. This pathogen not only leads to inflammation and redness but also triggers relentless itching, severely affecting the quality of life. The itch disrupts daily activities, sleep, and emotional well-being, often leading to anxiety and depression. Current anti-itch products, mostly focused on antibiotics and medications, don't always provide quick or significant relief and may have side effects like skin thinning and pigmentation. Recognizing the urgency and importance of this issue, we are committed to using Escherichia coli as a model to simulate the itch caused by Staphylococcus aureus and identify effective substances to alleviate the discomfort. Our goal is to develop a safe, user-friendly product that soothes itching and aids in treatment without interfering with conventional methods, providing a more comfortable and pleasant experience for those affected.https://static.igem.org/peertube/streaming-playlists/hls/2c131b4f-7c4b-499d-885e-5d5bcbfbecc2/facb41d1-cf29-422c-ba3b-a8f4267b2f27-master.m3u8https://video.igem.org/videos/embed/6rEDHPmJJgQgdnjzhturFq5990102024-12-04T13:51:39.673ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/oKGeCk8UKa5nobV3A8hiQQhttps://video.igem.org/lazy-static/thumbnails/5bc32229-18cb-41d0-a3d8-6ac83cec53bc.jpgIraviThe project tackles the public health challenge posed by high UV Index levels in Vellore, Tamil Nadu, which contribute to around 300,000 annual cases of non-melanoma skin cancer. While traditional sunscreens effectively block UV radiation, they often contain harmful chemicals that can disrupt hormones and damage the environment. This project proposes engineering Escherichia coli to overexpress genes in the Xanthophyll pathway, enabling the production of carotenoids like zeaxanthin and violaxanthin. These natural pigments offer antioxidant properties and can be integrated into skincare products for broad-spectrum UV protection. By employing recombinant DNA technology, this project aims to provide eco-friendly alternatives to chemical synthesis, addressing both skin health and environmental sustainability. The incorporation of these carotenoids into cosmetics aligns with the rising demand for safe, plant-based beauty solutions, ultimately contributing to a healthier market in India while mitigating skin cancer risks associated with UV exposure.https://static.igem.org/peertube/streaming-playlists/hls/b842d40a-e184-493b-876e-3e849ecacaa4/198aea98-43fd-46d2-8eb3-289a084986ac-master.m3u8https://video.igem.org/videos/embed/oKGeCk8UKa5nobV3A8hiQQ638072024-12-04T14:01:20.976ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/i9VRKQF4kJVuZDH5tnjoDshttps://video.igem.org/lazy-static/thumbnails/160ffa19-cd28-4d72-a422-4f81007065bb.jpgMINERALMineral is dedicated to addressing heavy metal contamination in water. We engineered *E. coli* to efficiently absorb nickel ions by introducing modules for nickel absorption and tolerance. Additionally, we created a reaction vessel by loading hydrogenase into carboxysomes, enabling efficient nickel reduction. To supply hydrogen for the reaction, we established an adhesion system between *E. coli* and cyanobacteria. These concepts have been well-validated, and the project’s safety was tested using *Caenorhabditis elegans*. We also conducted inclusive education targeting the autism community. The project’s commercial potential has been developed effectively, and we created validated software to simulate the stress different parts impose on chassis organisms.https://static.igem.org/peertube/streaming-playlists/hls/8aea7f9b-6709-4c88-8a76-dd3676aee914/67c5eafe-92cc-42d7-8e0e-976032cf2c2b-master.m3u8https://video.igem.org/videos/embed/i9VRKQF4kJVuZDH5tnjoDs5520312024-12-04T13:53:22.841ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/cf6Reti2TpRhAGSMb63s3bhttps://video.igem.org/lazy-static/thumbnails/e83066de-6527-4af3-b21a-0a35dad1962b.jpgCell-free biosensor for endocrine-disrupting compounds using human hormone receptorsEndocrine Disrupting Compounds (EDCs) are a group of harmful chemicals that cause developmental and fertility issues, with potentially severe cumulative effects on public health in the near future. For the 2024 iGEM competition, the DTU Biobuilders are addressing this problem with ENDOSENSE, a low-cost, cell-free, novel biosensor based on the ROSALIND system. Our sensor utilizes human hormone-binding receptors and operates as an effect-based system capable of detecting non-predetermined targets. Its design allows for a rapid, cost-effective solution suitable for on-site applications. Additionally, we developed SENTINEL, a tool that uses natural language processing (NLP) to identify EDC interactions with target proteins, helping researchers analyze literature more efficiently and accelerating research. With ENDOSENSE and SENTINEL, DTU Biobuilders contribute to improving water quality, enhancing public health, and protecting marine biodiversity (SDGs 6, 3, 14), moving closer to a future where drinking tap water is safe for everyone.https://static.igem.org/peertube/streaming-playlists/hls/5b0c8ae1-f9d6-4f16-a06b-5fc67dce1e46/059de295-6b51-48c6-be56-f5ee3d18addd-master.m3u8https://video.igem.org/videos/embed/cf6Reti2TpRhAGSMb63s3b540052024-12-04T14:02:28.352ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ujJDmKpckdENNHc6mN8UXdhttps://video.igem.org/lazy-static/thumbnails/b08a3ed1-fa32-44f3-b4be-eb4181b7c19e.jpgArtificially Synthesizing Caddisfly Silk in Yeast as an Alternative Surgical MeshWith over 90% of cosmetic surgeries requiring the use of plastic-based meshes for soft tissue support and securing implants, the risk of introducing microplastics and their subsequent adverse health effects runs high. It is clear that there is a need for a bio-based alternative. We propose a silk-based mesh, dubbed Caddisgraft, to solve this issue. Caddisfly silk is a wet adhesive secreted by aquatic caddisfly larvae to protect against the elements, and thus boasts a high tensile strength, biodegradability and non-cytotoxic properties. Our team hopes to develop a yeast strain capable of expressing caddisfly silk for purification and mass production into Caddisgraft surgical meshes. This yeast strain would be created through a novel synthesis method that stitches together highly repetitive silk protein motifs until the desired number of repeats is reached. Ultimately, Caddisgraft hopes to reduce post-operative pain and encourage better tissue regrowth in cosmetic surgery patients.https://static.igem.org/peertube/streaming-playlists/hls/e55d8cfa-a17c-4209-a67b-aa5d1da2e80a/9ae5c483-f1e0-494d-a5c7-505064630fde-master.m3u8https://video.igem.org/videos/embed/ujJDmKpckdENNHc6mN8UXd500032024-12-04T13:46:25.010ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ntk6wEJiEabtfprxdnZf2xhttps://video.igem.org/lazy-static/thumbnails/2e28303c-7c64-46b5-a685-575b470846c4.jpgBloom Busters: Engineering Chlamydomonas reinhardtii to fight toxic algal bloomsThe Problem: Excess nutrient loading in Utah Lake is causing increased eutrophication, which leads to increased cyanobacterial blooms that produce toxins hazardous to human, animal, and aquatic life. The excess nutrients are composed mostly of nitrogen and phosphorous compounds that enter the lake primarily from wastewater treatment plants, runoff fertilizer, and naturally occurring within inorganic environmental resources. Our Solution: Reduce the nutrient load of wastewater entering the lake by engineering a harmless organism to sequester phosphorus and convert nitrogenous compounds to atmospheric nitrogen, which is biologically inert. We chose the microalgae Chlamydomonas reinhardtii as the chassis for the genetically engineered machine. A second, long-term goal would be to turn the sequestered nutrients into a marketable product.https://static.igem.org/peertube/streaming-playlists/hls/ade0c2f5-a7ca-484e-9024-18a62d71f849/cb408395-df06-4717-8645-017aa16e9fde-master.m3u8https://video.igem.org/videos/embed/ntk6wEJiEabtfprxdnZf2x590022024-12-04T14:01:51.931ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/2J3Gy7jCiu5MAG9XScUkA9https://video.igem.org/lazy-static/thumbnails/99d331de-4f44-4993-b5d2-e6cbd5a91cbd.jpgReneWool: Utilizing enzymatic degradation to upcycle mixed fabric waste into spider silk in E. coli.Fast fashion trends are accelerating the expansion of the textile industry and giving rise to a global environmental crisis. Only 15% of the 92 million tonnes of textile waste produced annually are recycled or repurposed. However, these methods are largely inefficient as they release harmful chemicals and produce carbon dioxide emission. To combat this, we have created a two-step system that uses E. coli as a chassis to produce enzymes that can efficiently degrade keratin and cellulose based mixed fabrics into its monomeric amino acid and sugar subunits, which are then used as a feedstock for the production of spider silk proteins. Functionally similar to native dragline spider silk from orb-weaver spiders, this value-added commodity is sought after in the fashion, military, aerospace, firefighting, and biomedical sectors. Through this process, our system promotes the renewal of fabrics into high-value commodities, reducing waste accumulation in landfills.https://static.igem.org/peertube/streaming-playlists/hls/0df80a5a-5961-4b1a-b185-db8a9a9a7638/0276f2fb-47f6-476a-bd34-7abc745f2d43-master.m3u8https://video.igem.org/videos/embed/2J3Gy7jCiu5MAG9XScUkA9604072024-12-04T14:02:40.481ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/aL1BxHE6RHasPb8Q2LwReshttps://video.igem.org/lazy-static/thumbnails/660330d1-5c53-4e54-846a-51af7992f3f0.jpgProject Ash Guard: Developing a Bioinsecticide to Combat the Invasive Emerald Ash Borer (EAB)Project Ash Guard aims to develop a targeted, eco-friendly bioinsecticide to combat the invasive Emerald Ash Borer (EAB) beetle. By leveraging natural ecosystems and microbiomes, the project seeks to protect ash trees without relying on chemical pesticides, cutting, or burning, preserving the ecosystem and ash forests. EAB, a highly destructive beetle from Asia, threatens ash trees, which are essential to the environment, ecosystem, and economy. Current EAB management methods, such as chemical pesticides, pose significant environmental risks. Ash Guard utilizes the Cry8Da toxin, originating from Bacillus thuringiensis, which specifically targets the gut cells of EAB. We are engineering E. coli, Bacillus subtilis, and Saccharomyces cerevisiae to produce Cry8Da, with the goal of using S. cerevisiae, a yeast that naturally exists on ash tree bark. This approach will enable the bioinsecticide to naturally reside on ash trees, providing protection against EAB while minimizing environmental harm.https://static.igem.org/peertube/streaming-playlists/hls/4f0759fd-223f-4d1c-808e-c1eca9a6d180/d80664ad-471f-42be-a4db-6a877a84c1bb-master.m3u8https://video.igem.org/videos/embed/aL1BxHE6RHasPb8Q2LwRes6330122024-12-04T14:20:38.612ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tCbE7MvSi6BmH6tDQrjzRUhttps://video.igem.org/lazy-static/thumbnails/043cf315-48b2-4497-9e36-a777d0e7318f.jpgBovEco: A Novel Approach to Fighting Enteric Methane Emissions via Engineered Microalgae and GMO ...Enteric emissions from ruminants are a major source of methane, a greenhouse gas 84 times more potent than carbon dioxide. Certain feed additives exist with methane-reducing effects, however these products suffer from low uptake due to the high cost and lack of incentives for farmers to purchase them. The Waterloo team presents BovEco, a novel, sustainable, and conceptually cost-effective methane-reduction solution. Our work involves 2 delivery methods of a prophage-derived lytic enzyme proven to target methanogens and induce a rumenal microbiome shift. First, we are engineering C. vulgaris microalgae to express this protein: the cells will stabilize the protein but degrade in the rumen, simultaneously releasing the active enzyme and providing nutritional benefits. Our final vision revolves around GMO crops already fed to ruminants, intended to minimize production and cost-related challenges.https://static.igem.org/peertube/streaming-playlists/hls/dfb41657-0fba-4e58-a52c-a3b63848b212/e7b020a4-4748-4634-a472-614b983c0e6c-master.m3u8https://video.igem.org/videos/embed/tCbE7MvSi6BmH6tDQrjzRU534032024-12-04T14:10:22.800ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vfjqRXotLQuBmCAXpYXDsGhttps://video.igem.org/lazy-static/thumbnails/22648807-455d-4598-b6c2-77fc63eeabd9.jpgSoil-IQ: An In-plant Soil Nitrate Indicator for Producers in the Developing WorldFarmers in the developing world currently lack affordable, intuitive systems for optimizing fertilizer use. As a result, many under or overfertilize, harming their yields, and damaging the environment. Many sustainable development practices make farmers feel like they have to choose between their livelihoods and the environment, leading to decreased results of efforts to alleviate poverty or to protect the environment. Soil-IQ utilizes a novel nitrate detecting promoter and an intuitive colorimetric reporter to help farmers know when they have fertilized enough to maximize their yields without harming the environment. Designed for farmers and by farmers, Soil-IQ removes the guesswork in fertilizer optimization and helps farmers be both sustainable and more productive. As a result, Soil-IQ helps protect those at most risk from climate change and environmental degradation while simultaneously enabling them to create more resilient and efficient farms, making sustainable development a win-win for both farmers and other stakeholders.https://static.igem.org/peertube/streaming-playlists/hls/ecd8ca7d-4d07-4dc2-be27-f53867496c78/5a67ed6f-af8e-479c-b0f7-ad129dc8b1c9-master.m3u8https://video.igem.org/videos/embed/vfjqRXotLQuBmCAXpYXDsG485042024-12-04T14:18:44.220ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/iEJTv9XXyQvdoRLmTonTiXhttps://video.igem.org/lazy-static/thumbnails/73f9e46e-5a1c-495f-bb9f-2830d3423b0f.jpgCyanoVolt: Creating Carbon-Negative Energy Through Cyanobacteria Based BiophotovoltaicsDue to the photosynthetic capability of cyanobacteria, they are an attractive model for synthesizing new biocompounds and have gained interest in producing bioenergy. Therefore, the development of genetically engineered cyanobacteria has increased in relevance over the last two decades. Our project aims to use genetically engineered cyanobacteria to create a biophotovoltaic fuel cell that can sequester CO2 from the environment and create a source of carbon-negative electricity, all while also producing a valuable byproduct, ethanol. Our biophotovoltaic fuel cell consists of two electrodes screen printed on paper substrate, with a layer of printed cyanobacteria on the anode. This “cell” is then covered by a hydrogel to act as a proton exchange membrane and collect ethanol. In order to efficiently assemble our biophotovoltaic fuel cells, we designed an automated screen printer to mass produce our cells.https://static.igem.org/peertube/streaming-playlists/hls/8f140d17-2a4b-46b7-9352-4d0639b4c5c5/0c020b41-d7be-44d1-9276-7637eac370fc-master.m3u8https://video.igem.org/videos/embed/iEJTv9XXyQvdoRLmTonTiX599072024-12-04T14:29:58.639ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9ibqejVyA8EfFuP2oa1fxEhttps://video.igem.org/lazy-static/thumbnails/12e11774-63db-46ac-8996-defe6ecbec2e.jpgTarakate - From Rainforest Deforestation to Sustainable Rubber: Using Plant SynBio to Facilitate ...Natural rubber production from Hevea brasiliensis poses significant environmental and economic challenges, including deforestation, labor exploitation, and vulnerability to diseases like South American leaf blight. With a global demand of 15 million tons annually and over 50,000 rubber products, finding sustainable alternatives is critical. Taraxacum kok-saghyz, a rubber-producing dandelion, emerges as a promising solution. Consultations with experts revealed that the primary limitation in dandelion cultivation is not rubber yield but agriculturally significant traits like plant morphology. To address this, we developed a comprehensive collection of characterized genetic parts specific to dandelions, including constitutive regulatory elements. We tested our constructs using four transformation methods - two transient (leaf infiltration and protoplast transformation) and two stable ("extremely simplified cut-dip-budding" and sterile transformation). By creating efficient protocols and tools, we aim to make dandelion a viable chassis for synthetic biology, enabling future iGEM teams to contribute to sustainable rubber production and other applications.https://static.igem.org/peertube/streaming-playlists/hls/432f2c6d-119c-4db9-94be-18141f1f2e34/07a04a97-57a1-41f8-a52d-2030421b0aba-master.m3u8https://video.igem.org/videos/embed/9ibqejVyA8EfFuP2oa1fxE5140322024-12-04T14:23:47.329ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jY6ZMhmHJaSyctWCrWMcDphttps://video.igem.org/lazy-static/thumbnails/4ad48dbc-ae1e-44a9-8aed-5a105100b37a.jpgAutomated Maturation Assay for Chromoproteins: A Novel ApproachTo evaluate the maturation kinetics of mutated chromoproteins, we developed a novel assay that monitors color development over time under controlled conditions. This new maturation assay offers significant advantages over previously employed methods, as its automated design enables near-continuous monitoring of intensity changes, unlike the discrete measurements often used in the lab. With its streamlined approach, requiring minimal manual effort, this assay provides a more precise and accessible way to determine maturation times, offering new possibilities for improving chromoprotein efficiency in applications ranging from biotechnology to synthetic biology. Come learn how this innovation can simplify and enhance chromoprotein research.https://static.igem.org/peertube/streaming-playlists/hls/9999d7a1-0ead-4a6b-bd43-6f97a7a7410d/2b570fb9-7ac3-48e7-8cbe-23e0fad89522-master.m3u8https://video.igem.org/videos/embed/jY6ZMhmHJaSyctWCrWMcDp5100142024-12-04T14:24:13.139ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bxCSgLJp7d3nqxkY9Mg1tKhttps://video.igem.org/lazy-static/thumbnails/3ef4ab94-4482-4af9-bbb3-db666bc2005a.jpgThe Importance of Bridging Science and CommunityThis talk will highlight how our education and outreach efforts aimed to include more voices in shaping synthetic biology and more specifically, our project. We engaged a diverse range of audiences, from children to college students, teaching them about the scientific process, genes, and synthetic biology in interactive and accessible ways. We also connected with those affected by celiac disease, gluten-free bakeries, and the general public, creating a two-way dialogue that allowed us to share scientific ideas while learning about public concerns and values. These real-world insights provided us with valuable feedback that helped shape our project’s goals to better align with community needs. Tune in to see how our inclusive approach to outreach fostered mutual learning and steered the development of our project.https://static.igem.org/peertube/streaming-playlists/hls/556629d5-a5ff-474b-b57e-582245debff1/22166873-d2e9-404f-8283-1925185799d8-master.m3u8https://video.igem.org/videos/embed/bxCSgLJp7d3nqxkY9Mg1tK5760242024-12-04T14:26:04.730ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nQdH6UoKLXf1PeieKerTBthttps://video.igem.org/lazy-static/thumbnails/99fb01a0-ec32-4d64-8c53-17be2920724c.jpgLigninolytic Enzymes Plus Nanozymes: A Sharp Weapon for Lignocellulose DegradationModern global warming has posed serious threat to climate and related life on earth. The greenhouse gas emissions caused by fossil fuels are the main culprit of global warming. It is of great urgent to develop renewable and green energy to solve this issue. Lignocellulose biomass is promising precusor for developing renewable energy to cope with greenhouse gas emissions. However, the current lignocellulose degradation methods are limited by low efficiency and are environmentally unfriendly and energy consuming. What can be done with synthetic biology? In this project, we engineered the tgenes of cytochrome C mature protein (Ccm) operon and transformed into P. putida, creating a cellular factory that produce abundant ligninolytic enzymes, which simutaneously produce manganese oxide acting as ligninolytic nanozyme. Finally, the enzymes plus nanozyme sucessfully realize lignin degradation with high efficiency.https://static.igem.org/peertube/streaming-playlists/hls/b0cb71de-b49d-4e4b-b806-5870c9e5968d/6a62ef1e-bc24-4e5c-a7dc-7c54d10fe81b-master.m3u8https://video.igem.org/videos/embed/nQdH6UoKLXf1PeieKerTBt620052024-12-04T14:35:53.787ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/8rTZ8C3JXdA2fPepuvQte9https://video.igem.org/lazy-static/thumbnails/a06da314-74f8-4c5f-9f0c-f70696733fed.jpgZymetec: Cultivating Tradition, Empowering Maize with BiotechnologyMaize, a staple feeding over 3 billion people globally, holds deep cultural, economic, and social significance, especially in Mexico, where it’s intertwined with identity. However, climate change and water scarcity threaten maize, affecting 40% of global crops and endangering food security. To combat this, Zymetec, a biostimulant, enhances maize's stress resistance by boosting the production of osmoprotectants like proline and glycine betaine by activating the metabolic route, improving water use and reducing oxidative stress. Zymetec safeguards maize's nutritional value, ensuring food security, preserving jobs, and supporting cultural traditions, particularly in regions where maize is central to life.https://static.igem.org/peertube/streaming-playlists/hls/3c4d9a0e-36dd-4c74-9310-e21d6a94acd6/22542ce2-9ded-4eb9-964f-5b11c4ba1003-master.m3u8https://video.igem.org/videos/embed/8rTZ8C3JXdA2fPepuvQte9618082024-12-04T14:39:07.733ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pYiF8PqxJwvge9gQimLPPfhttps://video.igem.org/lazy-static/thumbnails/dabd8e02-03c0-4b0b-8e4f-cf7f987bfbf9.jpgAlebricks a maize alliedJust as corn comes in diverse varieties across the country, we too come from different schools and backgrounds. We acknowledge the significance of maize to our economy and culture, being the most widely produced cereal globally, surpassing rice and wheat. To safeguard this vital crop and its benefits, we are developing a biopesticide based on piperamide.https://static.igem.org/peertube/streaming-playlists/hls/c21ebb95-1a27-4447-ab55-d39a7e56ef90/03c09f78-c920-4b25-a4b7-13784c9c77ef-master.m3u8https://video.igem.org/videos/embed/pYiF8PqxJwvge9gQimLPPf515052024-12-04T14:29:25.916ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/1fKQH5G6N1V1Wp5qhwoyCxhttps://video.igem.org/lazy-static/thumbnails/ef03b53b-8136-4dfa-b1a1-b2764553a070.jpgBeyond the binHow Canadian Prairie provinces deal with waste management problems. What role do biodegradable plastics and PFAS play in this problem? What can we learn from their experience?https://static.igem.org/peertube/streaming-playlists/hls/020f6e15-7f72-4a74-8dca-8e8786c68917/45277538-e18c-4d92-a3c3-242e4b196c16-master.m3u8https://video.igem.org/videos/embed/1fKQH5G6N1V1Wp5qhwoyCx490062024-12-04T14:28:08.750ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9hGDaEWhHr3UNsM4yWgsVchttps://video.igem.org/lazy-static/thumbnails/9af9cb78-00a2-4c3a-8564-530d0fd75130.jpgBioGlimmer: Synthetic Guanine Crystals for Sustainable CosmeticsiGEM Stockholm presents BioGlimmer: a synthetic biology solution for growing guanine crystals using E. coli. The cosmetic ingredients guanine crystal and mica are commonly sourced from either fish scales or mining, respectively. Both acquisition methods come with problems: fish scale harvesting is non-vegan and disruptive of ecosystems, and mining is harmful to the environment and has commonly unethical labor practices. A recent research article by Pavan et al. (2023) described native guanine crystal production in Aeromonas strains. We sought to transfer the genetic principles of these bacteria to E. coli, a more manageable and industrially scalable strain. In our model, we transform the bacteria with two genetic systems: guaA and guaB genes to enhance guanine synthesis, and CRISPRi silencing of the guanine degradation genes guaD and xdh. In concert, these two systems we hypothesise will result in guanine accumulation and eventually vegan and ethical guanine crystal formation.https://static.igem.org/peertube/streaming-playlists/hls/431e0e2d-cf13-43f5-8c23-ef1f63b1c0ad/0fecb280-9bd3-486f-8a69-9db0b8995e32-master.m3u8https://video.igem.org/videos/embed/9hGDaEWhHr3UNsM4yWgsVc597042024-12-04T14:36:58.315ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/kkZ71mKddtJhEPsHtjDRfShttps://video.igem.org/lazy-static/thumbnails/dd2f6258-4d2a-4c43-85ec-62aaf3353e61.jpgShowgNsThe nitrogen issue is one of the most critical problems these days. Excess nitrogen introduced into the environment by human activities causes eutrophication, negatively impacts aquatic ecosystems, and contributes to climate change in the form of the greenhouse gas, dinitrogen monoxide (N2O). The main source of this nitrogen influx is nitrogen fertilizers used in agricultural fields. To solve the nitrogen issue while maintaining productivity through fertilizers, in this project, we worked on developing a cell-free nitrogen biosensor for optimal fertilization management. By combining a cell-free biosensor with hardware for sampling, we aimed to accurately measure the concentration of ammonium (NH4+) and nitrate (NO3-) in the soil. Additionally, we have developed a platform that can be applied to the development of other biosensors.https://static.igem.org/peertube/streaming-playlists/hls/9ca7f51d-c824-447f-bd23-0141d4c61e4a/9bdcb88c-f708-43db-8e76-61c2c1ff2d12-master.m3u8https://video.igem.org/videos/embed/kkZ71mKddtJhEPsHtjDRfS6290142024-12-04T14:39:42.688ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/mtQSKok4wCLtEK6WdWBzMfhttps://video.igem.org/lazy-static/thumbnails/0d430d2c-ee4e-40a2-9a47-4aee4e81a952.jpgYeastea - An oscillatory yeast-derived skincare solution for enhanced skin barrier repairSensitive skin affects approximately 60% of the global population, leading to an increasing demand for safe and effective skincare solutions. However, natural ingredients like (–)-α-bisabolol, known for the anti-inflammatory properties, are costly when combined with yeast extracts. To address this, we designed "Yeastea", a novel 2+1 yeast-fermented skincare product combining (–)-α-bisabolol, ceramides, and yeast extract for enhanced skin barrier repair. We engineered Saccharomyces cerevisiae to produce the key ingredients via the genetic oscillator that reduces cytotoxicity and enhances the yeast lifespan. We increased ceramide production by 37%. This innovative yeast-fermented skincare product offers an affordable, sustainable solution for sensitive skin, with a broader future in the skincare and cosmetic industry.https://static.igem.org/peertube/streaming-playlists/hls/a5d9f9aa-7c45-4bb7-8b26-925b47c9ed3c/2a099ed5-8247-44d7-a29a-f6440e7dfee2-master.m3u8https://video.igem.org/videos/embed/mtQSKok4wCLtEK6WdWBzMf5480152024-12-04T14:38:03.689ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/sZGbXWwYYjdBAjG9wwNPwahttps://video.igem.org/lazy-static/thumbnails/c8425ef1-241d-4748-8c74-f44fc87c2ec2.jpgThaelia: Guardian of the Olive GrovesOlive trees hold deep cultural and economic importance in Greece, accounting for 79% of the country's tree crops. In our region, Thessaly, they are crucial to the stability of farmers' livelihoods. However, olive trees face a significant threat from Verticillium dahliae, a fungal pathogen that causes severe yield losses and tree mortality, especially in the Mediterranean. The lack of effective treatments has resulted in substantial economic losses, posing challenges to farmers' way of life and threatening the environment. With this in mind, our team developed THAELIA, a modular bacterial system that produces dsRNA to precisely target and silence essential fungal genes. By disrupting the growth and virulence of V. dahliae, THAELIA offers a sustainable new approach to fungal control. This approach protects olive trees during critical periods, ensuring the safety of biodiversity, human health, and the environment.https://static.igem.org/peertube/streaming-playlists/hls/da9bc476-1efe-42fb-95b7-c8694af7bc41/57beff30-5cdf-4066-b70e-1f5f7b0b3175-master.m3u8https://video.igem.org/videos/embed/sZGbXWwYYjdBAjG9wwNPwa6300152024-12-04T14:52:26.123ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/7X4yEBkeW7TBPzgKZ6sVDmhttps://video.igem.org/lazy-static/thumbnails/3a8d1c53-e2ed-4e73-b11e-81e6075c0106.jpgNeovio Dye——A new type of dyeing implemented by light induction systemZJU-China has designed a new and interesting microbial staining method. On the basis of synthesizing Violacein's highly efficient metabolic modification and addressable RNA scaffold, it uses light-induced DNA recombinase and light-sensitive transcription factors to realize memory pattern drawing, hoping to bring the color of synthetic biology to the fashion industry. Please join us to find fashion!https://static.igem.org/peertube/streaming-playlists/hls/3846ef69-f8b5-423c-bd51-5073d648502a/dc633ed0-9b15-432e-8425-e481ca3bbfe3-master.m3u8https://video.igem.org/videos/embed/7X4yEBkeW7TBPzgKZ6sVDm5610102024-12-04T14:43:36.660ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/haYGRD8MExaR6yJdr8EjKehttps://video.igem.org/lazy-static/thumbnails/9396a3f0-0af3-4168-aa19-bf937fced763.jpgOUROBOROSIn the 21st century, climate and energy issues have increased the demand for lithium-ion batteries. Yet, their disposal poses safety and environmental risks, and metal scarcity highlights the need for recycling. Conventional recycling is inefficient and polluting. We propose a synthetic biology approach to recover metals (Li, Mn, Co, Ni) from used batteries. A. niger ferments to produce acids for metal leaching, yeast displays peptides to selectively bind and separate ions, and E. coli's urease helps precipitate ions as carbonates for new anode production, creating a sustainable metal recovery loop.https://static.igem.org/peertube/streaming-playlists/hls/82f6db9a-6bec-4690-9378-d21e14149253/71ece72a-d6a0-46d8-8c72-935aeff4e082-master.m3u8https://video.igem.org/videos/embed/haYGRD8MExaR6yJdr8EjKe6380382024-12-04T14:54:27.107ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rrRVNrsESUrwcftChcp6bMhttps://video.igem.org/lazy-static/thumbnails/8b75207b-a815-4e58-a7d2-daeab9067f25.jpgSUPERMOM: Protecting Infants by Detecting and Detoxifying Harmful Contaminants in Breast MilkThe breastmilk meant to nurture new life could be exposing infants to invisible dangers - But what if we could change that? Breastmilk can be contaminated with endocrine disrupting contaminants (EDCs) like BPA, PCBs, and dioxins. These harmful compounds can accumulate in breastmilk and pose a risk to infants. Without proper disposal, these toxins can cause long-term health issues. Inspired by the liver, we present SUPERMOM, a yeast-based contaminant-induced system that detects and detoxifies harmful EDCs in breastmilk. SUPERMOM uses biosensors and phase I and phase II liver detoxifying enzymes to keep breastmilk safe for infants. We envision SUPERMOM to be integrated into everyday breastfeeding products, such as milk bottles or nipple shields, through a dual-layer encapsulation system. This system ensures that while breastmilk interacts with SUPERMOM, the yeast remains securely contained, offering parents a safe and effective way to detect and detoxify contaminated breastmilk.https://static.igem.org/peertube/streaming-playlists/hls/ce10d468-dd50-4dbb-9377-f2f7ff950fed/0bde3232-888d-4c73-a8e8-4416ff08acc5-master.m3u8https://video.igem.org/videos/embed/rrRVNrsESUrwcftChcp6bM608052024-12-04T14:46:13.536ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/sgQ1gU9GettXf8d8CCDaJahttps://video.igem.org/lazy-static/thumbnails/0de9126c-bae0-4981-befc-8051809e7d23.jpgCoffee - Beyond the BeverageCoffee, as most of us know, is arguably the world's favorite drink, but it does not end there. Coffee holds a lot of meaning, both scientifically and culturally. It finds itself in various forms through art, such as coffee painting or latte art, or cosmetics in the form of face washes, soaps, or lotions. Interestingly, coffee grounds are also used as a dietary fiber and in bakery products. Our presentation gives an insight into the various people we met through our endeavor to understand the coffee world better and how it is more than just our favorite morning cup.https://static.igem.org/peertube/streaming-playlists/hls/d4c3587e-0d7f-4081-bbf5-3350dfc7e919/5123c54a-eab8-4786-8d5a-7992187eb890-master.m3u8https://video.igem.org/videos/embed/sgQ1gU9GettXf8d8CCDaJa6060252024-12-03T08:00:43.061ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/o9RGF2MzBzQy7RjthENFc9https://video.igem.org/lazy-static/thumbnails/e3715052-199e-46bf-a46a-930146245cd4.jpgReeform – Engineering the Coral MicrobiomeCorals, though occupying less than 1% of the ocean’s surface, support a quarter of marine life. They are increasingly threatened by rising temperatures and diseases. Coral microbiomes play a key role in traits like heat tolerance and pathogen defense. This research seeks to enhance these traits using synthetic biology. Genes related to heat tolerance and pathogen defense were overexpressed in Symbiodiniaceae and Endozoicomonas. We conducted over 40 bacterial transformations, building 17 transcriptional units via Golden Gate Assembly. Additionally, we developed a bioinformatics pipeline, identifying over 500 gene regulatory elements. Lastly, we designed a microfluidic electroporation device, improving its fabrication with 3D printing to increase transformation efficiency.https://static.igem.org/peertube/streaming-playlists/hls/b365a152-b211-40e3-88e9-0d26ed716352/300ba55b-2604-465d-a694-8b78bf8e5e3b-master.m3u8https://video.igem.org/videos/embed/o9RGF2MzBzQy7RjthENFc96150152024-12-04T15:08:25.069ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jD9D7gr5VPXgEQwD1CeXJvhttps://video.igem.org/lazy-static/thumbnails/8677ce98-bed8-41bd-a541-d8bf1fcaa11b.jpgSERENE: Bringing serenity into your lives!In today's fast-paced society, stress and busy lifestyles often lead to persistent negative emotions, which can result in serious consequences such as depression, impacting millions worldwide. To address this issue, we are developing a comprehensive approach that enhances emotional awareness through our stress management app, Pokefish, while also designing genetically modified probiotics to synthesize 5-HTP (5-Hydroxytryptophan), thereby boosting serotonin production in the body. Our innovative strategy involves expressing the necessary enzymes and coenzymes and utilizing scaffolding techniques to optimize 5-HTP production. To increase accessibility, we will deliver these probiotics in an edible film attached to beverage seals, making it easy for individuals to incorporate them into their daily routines. By providing an effective and holistic solution, we aim to improve mood and enhance overall quality of life.https://static.igem.org/peertube/streaming-playlists/hls/96f456ff-388a-4e0b-98b1-19400eb278e5/413b19ab-80bc-4e9e-b9de-b0e5c6760c3c-master.m3u8https://video.igem.org/videos/embed/jD9D7gr5VPXgEQwD1CeXJv6440142024-12-04T15:12:43.534ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/a2TTkVmhGp7jDHWMa8NF2zhttps://video.igem.org/lazy-static/thumbnails/2aa36c48-2545-48a6-9f33-417563b07051.jpgBYEbuprofen - for cleaner waterPharmaceutical pollutants, particularly nonsteroidal anti-inflammatory drugs (NSAIDs) like ibuprofen, and diclofenac, and hormones such as estrogen, have been increasingly detected in aquatic ecosystems, where they threaten wildlife and disrupt ecological balance. Current wastewater treatment processes are often insufficient for removing these contaminants, leading to their accumulation in water bodies. The objective of this project is to develop an innovative solution using immobilized laccase, to degrade pharmaceutical pollutants in wastewater. Additionally, this project aims to lay the groundwork for the development of a biosensor to detect and monitor ibuprofen and diclofenac, providing a novel method for assessing water contaminations. The use of enzymatic degradation and improved pollutant detection represents a sustainable and cost-effective approach for the enhancement of wastewater treatment processes, thereby reducing the environmental impact of pharmaceutical contamination. This project supports the broader goal of enhancing water quality worldwide and preserving aquatic ecosystems.https://static.igem.org/peertube/streaming-playlists/hls/4925f795-2f15-4a18-a4c0-411315279557/1c4be566-9e9b-42df-b6b7-8d171e11b941-master.m3u8https://video.igem.org/videos/embed/a2TTkVmhGp7jDHWMa8NF2z6470122024-12-04T14:49:52.503ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/mNUjyZNWwCmiFz3C4vkRSbhttps://video.igem.org/lazy-static/thumbnails/7826d691-51c9-4ae8-9eed-cb6f382f8030.jpgPhosphix: Defeating The PhosphogeddonModern agriculture relies on the availability of synthetic fertilizers to feed an ever-growing global population. Unfortunately, one of the key components of these fertilizers, inorganic phosphate (Pi) is a finite resource that the world is set to run out of in the coming decades. This impending "Phosphogeddon" crisis will require new methods for recycling phosphate. We propose that phosphatase enzymes like PafA from Flavobacterium johnsoniae will allow us to recycle naturally-occurring organophosphates found in soil. First we set out to characterize PafA, then employed AI-guided protein redesign tools to enhance its expression, stability, and industry-readiness. By deploying our phosphatase with a high-affinity phosphate binding protein (PiBP) in a future waste-water treatment system, we can both effectively convert organophosphates back into inorganic phosphate and captured it for reuse. Overall, our project addresses the looming threat of "phosphogeddon" by both introducing a new source of inorganic phosphate and method for its capturehttps://static.igem.org/peertube/streaming-playlists/hls/a8833ae5-375e-4da8-8357-cde5845decea/a615e73a-80a0-4e6d-96d0-004b62bcd7e3-master.m3u8https://video.igem.org/videos/embed/mNUjyZNWwCmiFz3C4vkRSb600072024-12-04T14:48:41.555ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vQ7ifk488VwBnKrEXNGtbQhttps://video.igem.org/lazy-static/thumbnails/470c15cb-5ea8-4429-9b72-7126c89a1767.jpgMangroves PE&CO2 HuntersThe global problem of microplastic pollution has become a significant challenge for marine and coastal ecosystems, with research shows that mangroves not only effectively block plastic debris but also gradually accumulate it in their soil and sediments. Therefore, the microplastic content in mangrove soils is significantly higher than in other coastlines or marine sediments. To address these issues, we introduce “Mangroves PE&CO2 Hunters”, a project that has engineered two distinct bacterial species to tackle this environmental challenge. The first, P. aeruginosa, has been genetically modified to more effectively break down PE microplastics. Furthermore, we have engineered R. palustris to sequester CO2 produced during the plastic degradation process. Mathematical modeling, machine learning, biokinetic simulations, neural networks, LLM, and RAG are used to explore the project. Besides, we designed iHP tRi-Cycle to better understanding real-world needs thus refine our project.https://static.igem.org/peertube/streaming-playlists/hls/f1909a5d-61ee-4822-be28-541b197786c0/ebdcb37e-3b96-4f2e-81aa-ad54e9059891-master.m3u8https://video.igem.org/videos/embed/vQ7ifk488VwBnKrEXNGtbQ73701632024-12-04T15:13:26.312ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/s9jhDVRnVZGT9oaEhEvzFzhttps://video.igem.org/lazy-static/thumbnails/7fd36b6d-00bf-4912-9516-c9bf7ce97a53.jpgPoros Vaccine——a Vaccine Colonized in Fish and Secrete Antigen ProteinAs global population is projected to exceed 10 billion by 2050, ensuring adequate food supply is critical. Sea fish, particularly the highly nutritious flatfish species like the large halibut, are increasingly farmed in China. However, the industry faces significant challenges from viral, bacterial, and parasitic diseases, leading to substantial fish mortality. Our research highlights a unique approach using Edwardsiella piscicida as a vaccine carrier, engineered to be non-pathogenic, guided by the predictions from large language models. We called it "Poros-vaccine," which uses harmless signal molecules to induce sequential antigen release. Initial studies indicate potential benefits, but challenges remain in vaccine efficacy and public acceptance. Ongoing outreach efforts have improved understanding and acceptance among various demographics. With further optimization and clinical trials, our project aims to contribute significantly to sustainable aquaculture and intelligent agriculture.https://static.igem.org/peertube/streaming-playlists/hls/d3b6d33e-39ea-4d44-9bb4-f94fa79bc983/0a6c8e51-28a3-4db6-a176-9b9ba02a43b3-master.m3u8https://video.igem.org/videos/embed/s9jhDVRnVZGT9oaEhEvzFz636062024-12-04T14:53:14.976ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/2qY6Hy3PPKjv7kaq9w2cDzhttps://video.igem.org/lazy-static/thumbnails/d78fed1f-d194-4bad-aaa7-9a13ab01e1b1.jpgElectrosynthesis BiomineralizerClimate warming is progressively issuing a severe warning to humanity through its multifaceted and immense threats. We designed an efficient algal-bacterial co-culture system to convert carbon dioxide into calcium carbonate, achieving carbon sequestration for millennia. This system highlights the extracellular electron uptake pathway of Shewanella oneidensis and the experimental use of Vibrio natriegens to synthesize various complex calcium carbonate precipitation regulators (CCPR). We aim to integrate hardware with biological systems, utilizing solar panels to generate electricity and activate the electron uptake pathway (EEU) in Shewanella oneidensis. This will make it able to synthesize formate. Vibrio natriegens can utilize formate or sucrose and efficiently produce carbonic anhydrase (CA), coral acid-rich proteins (CARPs), and Cabp-Chbd. These proteins will significantly propel the precipitation of calcium carbonate. The sucrose from cyanobacteria serves as an additional carbon source, enabling the efficient metabolism of two other engineered bacteria.https://static.igem.org/peertube/streaming-playlists/hls/0b958fa4-99a5-4c6f-aaf7-f14a3b571f97/a409b8c5-9b03-4694-962c-93057ff9a98e-master.m3u8https://video.igem.org/videos/embed/2qY6Hy3PPKjv7kaq9w2cDz614042024-12-04T15:03:42.536ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3ndTzLZ3Ky3vphtsBjGFE5https://video.igem.org/lazy-static/thumbnails/9bd48226-4e69-4adf-bec5-eb764267f855.jpgThe PET Degradation STORM: Unleashing PETase's Power with PET-Binding PeptidesPolyethylene terephthalate (PET) plastic pollution poses a global environmental issue, and enzymatic degradation is an ideal ecologically friendly solution, yet its efficiency is restricted by limited substrate accessibility of corresponding enzymes. Therefore, our project applied the STROM strategy to boost the degradation ability of PETase towards PET by PET-binding peptides. Initially, sixteen potential PET-binding peptides were screened using deep learning models. Subsequently, fusion proteins of these PET-binding peptides with PETase were constructed to test PET microplastic degradation and binding efficiency, identifying three efficient peptides. Through optimization, the expression levels and PET degradation properties of these fusion proteins were further enhanced. Finally, with the aid of the Mutcompute-super model, these three peptides were re-modified, further improving the expression levels and PET microplastic degradation efficiencies of their fusion proteins, with the optimal degradation efficiency reaching 207.49% of PETase. Our project provides insights and support for the biodegradation of PET plastics.https://static.igem.org/peertube/streaming-playlists/hls/1328d6ff-658a-44b4-83e2-c701d841475c/281129c6-48d4-4dd4-a416-dfbac5baaf3f-master.m3u8https://video.igem.org/videos/embed/3ndTzLZ3Ky3vphtsBjGFE55460102024-12-04T14:48:04.882ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tLe7Tiw9vkpxX5fLVYyL3vhttps://video.igem.org/lazy-static/thumbnails/5d0d6044-016a-4ebc-99a4-20f54325f0fc.jpge-PHAESTUS, a bioleaching projectEveryone is excited when they buy a new mobile phone. But have you ever wondered what happens to the old device when we throw it away? Our old mobile phones, along with many other devices are known as e-waste, and they pose a significant environmental problem. Almost all e-waste is either burned or dumped in landfills, releasing compounds that are harmful for the environment and the human health, while the valuable metals contained in them, such as gold and copper, are often not recovered. Our team decided to provide an environmentally friendly solution through the method of bioleaching, and bring the project «e-PHAESTUS» to life. To achieve this, we focus on the production of the tripeptide glutathione, which can bind with metals and dissolve them. Our goal is to genetically modify a strain of the bacterium E. coli to increase the production of the protein, for use in the industry.https://static.igem.org/peertube/streaming-playlists/hls/e0d38dec-2c43-43dd-a2f7-11202e7ce161/cad6e8e5-4940-4e10-a228-b607015f3798-master.m3u8https://video.igem.org/videos/embed/tLe7Tiw9vkpxX5fLVYyL3v504082024-12-04T14:46:39.008ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rCiGp2zAMJJ3cedeZfa6pWhttps://video.igem.org/lazy-static/thumbnails/7d6f4ffb-d996-4cd2-905e-b291317e6e7f.jpgCaffeine CycleThis project focuses on the reutilization of food waste by employing directed evolution of key enzymes to improve the production of 7-methylxanthine (7-MX), a high-value compound, with caffeine from coffee grounds as the substrate. This research not only provides an innovative and sustainable solution for the reutilization of coffee grounds, thus promoting the sustainable development of the circular economy, but also opens up new possibilities in the biosynthesis of methylxanthine compounds.https://static.igem.org/peertube/streaming-playlists/hls/cf8625e8-47c2-4007-9b2e-e580b13a6c48/b1803de9-1060-4a92-9865-12a769edb26b-master.m3u8https://video.igem.org/videos/embed/rCiGp2zAMJJ3cedeZfa6pW5600262024-12-04T14:50:53.088ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/oi4HT4FF8bVvJGSvYh2e82https://video.igem.org/lazy-static/thumbnails/fa42d1a2-420a-4486-90ab-c10aed686d2f.jpgRhyzUp - Drought Resistance Through Biofilm EnhancementGlobal food systems are increasingly pressured by climate change, unsustainable agricultural practices and social pressures, such as political instability and population growth. Key challenges including environmental instability and desertification threaten food security. RhyzUp presents a sustainable solution by enhancing biofilm production in rhizobacteria to improve plant resilience under stress conditions like drought. Our project makes use of the symbiotic relationship between plants and rhizobacteria to optimize biofilm formation only when in proximity to plant roots, which improves water retention, nutrient uptake, and protection against environmental stressors. By genetically modifying Pseudomonas sp. IsoF, we aim to increase the production of cyclic di-GMP (c-di-GMP), a second messenger involved in the formation of biofilms. This is done by upregulating diguanylate cyclases (DGCs) to increase c-di-GMP production and inhibiting a phosphodiesterase (PDE) to prevent its degradation. Our goal is to create a sustainable approach by leveraging synthetic biology to enhance agricultural resilience.https://static.igem.org/peertube/streaming-playlists/hls/b48afd09-2160-4be7-a668-52e29e1c1cd3/54109822-99dc-4b73-9b00-66735c8ca0ec-master.m3u8https://video.igem.org/videos/embed/oi4HT4FF8bVvJGSvYh2e825930102024-12-04T15:00:51.431ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/cyAvZTmdd69sT3S9sJNBAHhttps://video.igem.org/lazy-static/thumbnails/55089a3f-4c67-4b80-b8cf-fb249d4b3024.jpgReFiBa - Enzyme based Recycling of textile Fibers using Bacillus subtilisThe exponential growth in global textile production has led to a worrying increase in textile waste, requiring the development of efficient recycling methods. Our team is addressing this issue by focusing on the degradation of the main components of clothing, cotton (cellulose) and polyester (PET), using cellulases and PETases. The prokaryotic model organism Bacillus subtilis is applied for protein expression. We are exploring two enzyme expression systems: first, screening of different secreted and intracellular enzymes for the most promising and suitable candidates, and second, using these enzymes for immobilisation on the surface of endospores, providing resistance to harsh conditions and improving enzyme reusability. Both approaches aim to facilitate the degradation of mixed textiles into reusable chemicals. Through our project ReFiBa, we aim to develop a circular economy concept that promotes sustainable textile recycling and offers a promising solution to the global textile waste problem.https://static.igem.org/peertube/streaming-playlists/hls/5da1990e-f854-4759-b09a-cb744f2764d9/8eecd54e-10fd-428f-96ea-e7a76e85cc29-master.m3u8https://video.igem.org/videos/embed/cyAvZTmdd69sT3S9sJNBAH692012024-12-04T15:06:34.249ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pbq9MtMbpd4eaQhNrwAHu7https://video.igem.org/lazy-static/thumbnails/c18aca11-c466-45ed-878f-e50571dd9535.jpgPlastid-mediated RNA interference achieves efficient control of agricultural pestsAs the main pest of tobacco, Calyptogramma has a serious impact on the yield and quality of tobacco.HUBU-China exploited RNAi's mechanism of action to induce complementary mRNA degradation leading to gene silencing in the important lepidopteran pest Spodoptera litura.Tobacco plastid is designed as a delivery system capable of expressing both the VLP protein shell and the chitin synthase gene.Firstly,expressing a large number of artificial microRNA (dsRNA) of the chitin synthase gene necessary for the growth of Spodoptera litura, which can enter the cytoplasm after Spodoptera liturae eats tobacco.Additionally, Argonaute proteins (AGOs) assemble these siRNAs to form RNA-induced silencing complexes (RISCs) that mediates the degradation of endogenous mRNA complementary to its guide strand, so that the chitin synthase gene cannot be expressed.As a result, lepidopteran peststo can be control efficiently.We hope that this delivery system can make a difference in disrupting insect development.https://static.igem.org/peertube/streaming-playlists/hls/bbb682bf-d8e3-4890-9134-d7598246cc72/6e4c3c9a-7cbb-4bee-a88a-45cef0f07f86-master.m3u8https://video.igem.org/videos/embed/pbq9MtMbpd4eaQhNrwAHu7453012024-12-04T14:55:31.122ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nrebuLfNi8VqHzVkmLu6ZUhttps://video.igem.org/lazy-static/thumbnails/33f4d074-c77b-4ec0-a01d-555bbd8ca3ce.jpgPETase Powerhouse: Crafting the Ultimate Enzyme Factory for PET DemolitionPET is a widely used plastic. However, its extensive use has also caused severe environmental pollution. In this project, through multiple rounds of engineering cycles, we optimized the promoter, signal peptide, and culture conditions, successfully constructing a highly efficient ICCG expression system. First, we created an ICCG-GFP fusion protein and used fluorescence intensity to characterize ICCG protein expression levels. During promoter optimization, we generated a Mtac promoter library through random mutagenesis and used a CNN-LSTM model to design and optimize the novel DMtac promoter. For the signal peptide, we screened and optimized the nfaA signal peptide and designed MnfaA mutants using a Markov transfer frequency matrix model. By combining high-throughput screening systems with predictive models, we significantly improved the expression efficiency of ICCG, providing valuable components and tools for future synthetic biology research.https://static.igem.org/peertube/streaming-playlists/hls/ad95a111-1e9d-4ab5-92ea-ea84550a40b2/e04b92de-9d55-40a1-ae3a-aa32ff113923-master.m3u8https://video.igem.org/videos/embed/nrebuLfNi8VqHzVkmLu6ZU619022024-12-04T15:07:17.934ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/b6LqtdrZcKC6yJ6WeXLYDGhttps://video.igem.org/lazy-static/thumbnails/359914d1-4169-4029-9784-d6c410a7d640.jpgBIOSnare : when bacterial cellulose meets a colored bioglue producing yeastGiven global challenges like food insecurity and environmental degradation, it’s needed to protect agriculture and households from harmful insects to reduce food waste. BioSnare addresses this problem by developing a 100% bio-based and biodegradable adhesive patch designed to capture pests. Using a co-culture of Komagataeibacter rhaeticus, a cellulose-producing bacterium, and genetically modified Saccharomyces cerevisiae, our system produces functionalized cellulose equipped with adhesive properties and specific colors to attract target pests. The yeast is engineered to secrete a fusion of the barnacle-derived protein Cp19k and spider silk-derived Masp1 for strong adhesion, alongside yellow chromoprotein fwYellow to attract insects like the Suzuki fly. Cellulose-binding domains (CBD) ensure that these proteins adhere to the cellulose matrix, creating a biodegradable trap. BioSnare provides a versatile concept promising alternative to conventional insecticides and traps, which pollute the environment. It aims to protect agriculture and households while promoting environmental sustainability.https://static.igem.org/peertube/streaming-playlists/hls/51c97b3d-8e3d-43b2-93d8-011f41a002da/b46956a3-a7e9-4c9c-b9d2-2520d14ba7fe-master.m3u8https://video.igem.org/videos/embed/b6LqtdrZcKC6yJ6WeXLYDG949012024-12-04T17:01:33.777ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/sHTYqZauKKjbqkPEuAjZEihttps://video.igem.org/lazy-static/thumbnails/a9709fce-ccc8-4e51-ba50-5d1722e4e136.jpgmicellaway - Bioremediation of PAHsIn our project "micellaway," we aim to address riverine oil pollutions which, while less publicized than marine oil spills, occure more frequently. Freshwater oil spills often lead to the formation of oil in water emulsions, which make conventional cleanup methods less effective. A particular concern are polycyclic aromatic hydrocarbons (PAHs), toxic and carcinogenic components of oil that pose significant threats to ecosystems. Therefor, we want to bioremediate PAHs using synthetic biology. Our chosen bioremediation chassis is Pseudomonas vancouverensis DSM8368, which naturally degrades three PAHs, naphthalene, fluorene and phenanthrene. We genetically introduced nine enzyme coding sequences into this chassis. Creating a metabolic pathway, which channels pyrene degradation into the native phenanthrene degradation pathway. To ensure biosafety, the modified bacteria will be immobilized inside a device, which can be installed at target sides in rivers. Polluted water and native bacteria will pass it, giving our chassis the opportunity to break down PAHs.https://static.igem.org/peertube/streaming-playlists/hls/d8672112-e9bd-4079-93a4-f81b72e10c21/f63a5849-b992-44e1-9aa1-d6be0102b969-master.m3u8https://video.igem.org/videos/embed/sHTYqZauKKjbqkPEuAjZEi565042024-12-04T15:05:18.276ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vy3hDKR2U5Rc3YdkJVMCcRhttps://video.igem.org/lazy-static/thumbnails/0961e7b2-4f97-4b4a-817b-eb5da4344060.jpgALIVE: ESTER as the next-gen solution for endocrine disruptors in wastewaterThe contamination of aquatic environments with 17α-ethinylestradiol (EE2) presents serious ecological and public health concerns due to its endocrine-disrupting effects. To address this issue, we have engineered a novel transcriptional regulatory protein, the Estrogen-Sensitive Transcriptional Element Regulator (ESTER), designed to selectively activate gene expression in the presence of EE2. Several computational tools, including AlphaFold 3, Rosetta, and Chimera, were employed to design this EE2-sensitive protein.https://static.igem.org/peertube/streaming-playlists/hls/ef523b32-f478-4c68-99d7-cf9c6864aa17/e90ef52a-cae3-4592-b923-aaf4738e61b4-master.m3u8https://video.igem.org/videos/embed/vy3hDKR2U5Rc3YdkJVMCcR589092024-12-04T15:30:02.455ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ddGHy9EwxC5gbXVq5AACjahttps://video.igem.org/lazy-static/thumbnails/38ac9398-9a6e-4990-a9e3-2d3d41b707ee.jpgiHP--how to fully consider the needs of stakeholdersOur reflection on integrated human practices and how we implement our project through conversations with stakeholdershttps://static.igem.org/peertube/streaming-playlists/hls/62f3ae7b-1987-4dcb-9b84-17ba33b9829d/0a80a54d-66ac-470a-879a-5fa2c2a9fc47-master.m3u8https://video.igem.org/videos/embed/ddGHy9EwxC5gbXVq5AACja5590192024-12-04T15:29:56.604ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vC5K4cpcSjpz6kUM4mjG1Khttps://video.igem.org/lazy-static/thumbnails/9febad74-9026-4778-abee-c65032626269.jpgHow to create an iGEM Team from scratch?We talk about how we have initiated the tradition of iGEM in Radboud and gathered the team all by ourselves. We have figured out all specificities, such as team structure, meetings, and labwork, by ourselves. We want to share our experience and insight about the biggest challenges that we have faced.https://static.igem.org/peertube/streaming-playlists/hls/efe2b82c-2d77-43e1-9c5b-8e4611aad6fb/2be1aac5-c421-48f1-85fc-81cb06bd978f-master.m3u8https://video.igem.org/videos/embed/vC5K4cpcSjpz6kUM4mjG1K622042024-12-04T15:31:05.263ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/6sQn7M8bq1VgJUh9X2uHPQhttps://video.igem.org/lazy-static/thumbnails/a401cad8-e2b6-453c-a9b1-0379be590320.jpgDeveloping a novel, rapid, on-site, diagnostic test for Bovine TuberculosisBovine Tuberculosis (bTB) is a chronic infectious disease predominately infecting cattle and is endemic in South-West England. Testing regimes are critical to managing this disease, however the most common testing system is low in sensitivity, slow, and stressful for cattle and farmers. We hope to improve the wellbeing and protect the livelihoods of farmers by developing a rapid and more specific bTB test. To do this we are developing two testing methods, one with an engineered Cas13a protein to detect RNA immune response biomarkers and the other using a Cas12a protein to detect specific bTB bacteria DNA sequences. These will both have the effect of cleaving the fluorophore from the quencher of the fluorescent probe to create a fluorescent response in the case of a positive result. Our designs have been informed and altered based on the input of relevant stakeholders throughout the entire processhttps://static.igem.org/peertube/streaming-playlists/hls/2c3cd634-f5c7-4184-81eb-8d8978b12a6a/ad276485-4558-4c39-b647-6d95a95b6ea9-master.m3u8https://video.igem.org/videos/embed/6sQn7M8bq1VgJUh9X2uHPQ632092024-12-04T15:31:49.985ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3GNeEsxM8ZxsjJd4YYq7ZShttps://video.igem.org/lazy-static/thumbnails/69aad642-6a43-49cc-bc62-1802f909d9c9.jpgPETilizer -- A Metabolic Coupling System for Concurrent MicroplasticAs plastic use escalates, agriculture faces increasing threats from microplastics, which originate from films, irrigation, wastewater, and compost. These particles compromise soil structure and quality, leading to reduced crop yields and altering crucial properties such as bulk density and water retention. More severely, crops may absorb these microplastics, impairing their ability to take up nutrients and water effectively. To combat these alarming issues, we introduce PETlizer—a groundbreaking solution featuring engineered E. coli BL21 to break down microplastics and Pseudomonas putida KT2440 to convert the byproducts into rhamnolipids. Rhamnolipids are powerful surfactants that enhance microbial adhesion, improve soil water retention, inhibit pathogens, and assist in pollution remediation. We hope this innovative approach will not only address plastic contamination but also boost agricultural productivity.https://static.igem.org/peertube/streaming-playlists/hls/15e48594-d808-448b-91ca-b57f2cb604f4/4dd4ce66-c8c1-484f-ab3a-85d328cdc106-master.m3u8https://video.igem.org/videos/embed/3GNeEsxM8ZxsjJd4YYq7ZS6870182024-12-03T08:06:21.189ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/u6XtNJ4bYgydQ4ERqCcFN8https://video.igem.org/lazy-static/thumbnails/538c9b09-d2f1-4589-9b15-61009e368fde.jpgLogical Gate-Based Synergistic Toxicity Detection SystemEnvironmental endocrine disruptors (EDCs) are chemicals that can mimic or interfere with natural hormones, primarily affecting organisms through endocrine disruption by interacting with hormone receptors. However, studies suggest they may also induce oxidative stress and other effects, causing more profound impacts. Traditional detection only monitors single endocrine disruption effects, neglecting the combined toxicological effects within organisms. We aim to assess these complex effects using a microbial sensor based on multiple logic gates. We've developed a hormone-sensitive intein to detect endocrine disruption and used the recA element from the SOS response to identify oxidative damage. An AND gate detection circuit with HRP regulation network enables the simultaneous detection of both effects. Additionally, we've designed a high-throughput, automated, portable fluorescence detection platform for our biosensor. Our project helps identify EDCs and monitor their oxidative damage effects, which is crucial for a comprehensive assessment of their potential impacts on organisms.https://static.igem.org/peertube/streaming-playlists/hls/e394caae-c167-4d7f-900d-5fc961b32c27/6ff3ae81-b3b5-4bc6-bd65-73fbc2210d37-master.m3u8https://video.igem.org/videos/embed/u6XtNJ4bYgydQ4ERqCcFN86150142024-12-04T16:33:06.604ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/4REHcAYDaFfteQoGB3KR6ahttps://video.igem.org/lazy-static/thumbnails/384f7ec9-696a-41e4-9be3-09a940d10ab8.jpgPlatelet-based Therapeutic to Recognize and Degrade Circulating Tumor Cell (CTC) ClustersThe 2024 MIT iGEM team focused on developing a therapeutic to target and degrade CTC clusters to reduce metastatic potential in cancer patients. The team's innovative solution involves engineering platelets to recognize and bind to both CTCs and neutrophils. Once both binding events occur, the engineered platelets release cytotoxic signals to degrade the CTC clusters, thereby aiming to reduce metastasis. We conducted multiple proof-of-concept experiments testing the Syn-Notch and CC-GEMS systems using HEK293 cells as a model and documented our parts collection of robustly tested Syn-Notch systems in the iGEM Registry. In addition, our team established frameworks for both diffusion gradient modeling and background architecture for computational fluid modeling. As part of our human practice, we compiled a Genomic Privacy Handbook and collaborated with physicians and medical researchers to offer scientific and bioethical frameworks for both present and future iGEM teams.https://static.igem.org/peertube/streaming-playlists/hls/1f3ab780-bcfb-4411-acbe-d548d5a107c7/00d4aa51-9998-4980-8fd5-910f3de0e4f8-master.m3u8https://video.igem.org/videos/embed/4REHcAYDaFfteQoGB3KR6a5610302024-12-04T15:30:08.128ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/2zEPSg5tFFVx3p49NuJ7q7https://video.igem.org/lazy-static/thumbnails/ef866785-e196-4fb0-81dd-479d31dba20e.jpgModules for Optimized Viability and Efficacy of RNA pesticides (MOVE)Pesticides play a crucial role in modern food production. However, current chemical pesticides face various challenges, including environmental changes due to climate change, the issue of resistant species, and their impact on the environment. RNA pesticides, which use the principle of RNA interference, are gaining attention as a means to address these problems associated with chemical pesticides. However, their low durability in natural environments poses a barrier to practical application. MOVE is a module that encapsulates RNA within membrane vesicles, which are surface-presented by functional proteins. Through MOVE, the effective duration of RNA pesticides is extended, maximizing the impact of the RNA. We are pioneering the future of agriculture by doing the following: MOVE RNA pesticides, MOVE pest control, MOVE agriculture.https://static.igem.org/peertube/streaming-playlists/hls/0ccc9c29-1b1b-4f78-9528-eb8c78793fde/8f9fe1fd-69c6-4206-8b32-0a63922f30ea-master.m3u8https://video.igem.org/videos/embed/2zEPSg5tFFVx3p49NuJ7q7573022024-12-04T15:30:44.134ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/v7HkwVMNopsxZ1zVGG8MjThttps://video.igem.org/lazy-static/thumbnails/1fe729c7-9c9f-44ff-ba14-d8f27a875042.jpgROSA: A Riboswitch-Based Biomarker Detection SystemGene-circuit-based sensors have significantly advanced medical diagnostics by enabling sensitive and specific biomarker detection. However, developing point-of-care diagnostics that are timely, cost-effective, and minimally invasive remains challenging. Our project, ROSA (Riboswitch Operated Sensor Apparatus), addresses this by creating a versatile, proof-of-concept detection method applicable in various medical settings. We engineered a riboswitch-based system to detect the biomarker CA125, demonstrating the simplicity and adaptability of novel riboswitch development. The biosensor functions in a cell-free system, where trehalase expression catalyzes the hydrolysis of excess trehalose into glucose, which can then be quantified using a standard glucose meter. This glucose meter-based reporting mechanism underscores the potential for adaptable, point-of-care diagnostics with broad applications in healthcare.https://static.igem.org/peertube/streaming-playlists/hls/ebc8f55d-5546-4405-9ea4-b4336f0fc1f3/ded86442-48a3-4911-9521-af0f77a833e2-master.m3u8https://video.igem.org/videos/embed/v7HkwVMNopsxZ1zVGG8MjT5870102024-12-04T15:31:11.258ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/87enNhV5A3a8GCbB5hptJchttps://video.igem.org/lazy-static/thumbnails/fa626e8d-5ab3-4bb1-8142-10fc80eb9b35.jpgMethane ReMOOver - Reducing Methane Emissions from CattleCattle release around 80 million tons of methane into the atmosphere annually, significantly contributing to global warming. The methane is produced by methanogens in the cow’s rumen as a by-product of enteric fermentation, also resulting in energy loss for the animal. We aim to reduce the methane emissions from cattle by synthetically engineering Cupriavidus necator to produce bromoform, a known methanogenesis inhibitor. The engineered bacteria would ideally colonize the rumen and become a permanent member of the microbiome, continuously inhibiting methane production from within. Our gene insert consists of a bromoperoxidase gene originating from marine bromoform-producing organisms, as well as a hydrogen peroxidase gene to supply the required substrate for bromoperoxidase. While we successfully transformed our simplest construct, only one bromoperoxidase showed protein expression. However, in-vitro co-culturing of C. Necator with methanogens showed decreased methane production, probably due to its competition for the same resources as methanogens.https://static.igem.org/peertube/streaming-playlists/hls/398ead27-c2dd-44e4-8819-2b63b4a9e933/591d45ee-e08f-445f-a5dd-4a204f511115-master.m3u8https://video.igem.org/videos/embed/87enNhV5A3a8GCbB5hptJc5480112024-12-04T15:31:42.053ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/mhgtVRWMwo3qZnwxTGpdZehttps://video.igem.org/lazy-static/thumbnails/4b1f150a-54bb-45c9-a462-99208de19d39.jpgAntibiotics and Environmental ProtectionThe use of antibiotics is essential for treating bacterial infections, but it poses significant environmental challenges. Antibiotics can enter the environment through pharmaceutical manufacturing, agricultural runoff, and improper disposal. This contamination can lead to the development of antibiotic-resistant bacteria, disrupting ecosystems and posing public health risks. Antibiotics can also affect natural microbial communities, impacting nutrient cycles and plant health. Mitigation strategies include improved waste management, stricter regulations, and continuous monitoring of antibiotic levels. Additionally, research into biodegradable antibiotics and alternative treatments can reduce environmental impact. Addressing these issues requires a multidisciplinary approach to protect both human health and the environment.https://static.igem.org/peertube/streaming-playlists/hls/a43c36df-add9-44ee-8f7b-8df1b43de95f/d2d7e163-c2a6-48cf-bba7-d4fda74f39a9-master.m3u8https://video.igem.org/videos/embed/mhgtVRWMwo3qZnwxTGpdZe583082024-12-04T15:28:33.548ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/m7ZcijEvJgwymitjL1gwU2https://video.igem.org/lazy-static/thumbnails/cf7c1149-21e6-489a-8d5d-04c8d83edd44.jpgP-CASEP-CASE is an innovative multiplex biosensor designed for the detection of pancreatic cancer using Surface Plasmon Resonance (SPR) technology. It integrates three detection chambers, each targeting a specific biomarker: CA19-9, Glypican-1 (GPC1) mRNA, and miR-206. The first chamber utilizes a DNA aptamer to bind CA19-9, the second employs a CRISPR-dCas13a system for GPC1 mRNA, and the third features a complementary ssDNA probe for miR-206 with a poly-A tail for enhanced sensor surface stability. This configuration enables simultaneous, real-time monitoring of these biomarkers, improving sensitivity and specificity for accurate diagnosis. P-CASE offers a novel approach for early pancreatic cancer detection and monitoring through a combination of synthetic biology and advanced diagnostic technologies.https://static.igem.org/peertube/streaming-playlists/hls/a2f07bbe-285b-485d-abc1-ef840297fad9/cf0952de-0d97-4906-98b6-94ea1688da57-master.m3u8https://video.igem.org/videos/embed/m7ZcijEvJgwymitjL1gwU2594062024-12-04T16:33:26.743ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pYbsK48Fms54Xe9bjdK7bUhttps://video.igem.org/lazy-static/thumbnails/8f243440-e2d9-4229-b913-ac84054b5a7d.jpgreSkin - Protein-based hydrogel dressings for burn wound treatmentAs iGEM team Hamburg 2024, we present our project reSkin: a hydrogel dressing for burn wounds. The WHO confirms that 11 million people suffer burn wounds every year globally. Our reSkin hydrogel is based on photo-crosslinking the natural components resilin and hyaluronic acid using riboflavin phosphate as photo-initiator. Resilin is a protein found in insects. It is well known for its exceptional mechanical properties and resilience. Hyaluronic acid is a negatively charged polymer with an extremely high water capacity. This allows for the hydration of the burn wound and the absorption of the wound fluid. To support wound healing, prevent inflammation, and promote the regeneration of skin tissue, we have added astaxanthin, bromelain, and vitamin E to our hydrogel. Furthermore, the protease bromelain helps to differentiate between degrees 2a and 2b of the burn injury and is therefore used to assess whether a skin transplant is necessary.https://static.igem.org/peertube/streaming-playlists/hls/c21a4983-b385-47bd-bec7-05fa44335988/858222dd-ae2c-4813-b441-e4f499499bfe-master.m3u8https://video.igem.org/videos/embed/pYbsK48Fms54Xe9bjdK7bU503062024-12-04T15:31:15.823ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/i1KXeMLwD92MmgEXBVQnwWhttps://video.igem.org/lazy-static/thumbnails/cc91ec1a-193d-4078-b2e2-f08a27a32ed9.jpgEducation and awarenessTalk about the Human Practices aspect of our project. How we have tried to create more awareness on Endometriosis as a disease and actually listen to the women suffering. How we have tried to educate people on endometriosis and synthetic biology as a tool to create potential solutions to big problems.https://static.igem.org/peertube/streaming-playlists/hls/89c6719f-0e2c-4db3-bf2f-e0f91128c566/38f4b14d-3a18-49e7-8134-cddb3f131d97-master.m3u8https://video.igem.org/videos/embed/i1KXeMLwD92MmgEXBVQnwW587022024-12-03T08:07:09.339ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vikojysduAUSs7KrnnZ9WRhttps://video.igem.org/lazy-static/thumbnails/79093936-ee14-453b-877d-39ee77b307e9.jpgA Bacterial Approach to Gastrointestinal Pathogen TreatmentBacterial antimicrobial resistance is a silent pandemic that is responsible for the deaths of millions of people annually and is a threat that continues to magnify. The UOregon iGEM team is developing a probiotic therapeutic to replace antibiotics in the treatment of gastrointestinal (Gl) tract infections. Our genetically modified strain of E. coli Nissle 1917 (EcN) is a modular platform that selectively identifies and destroys a targeted Gl pathogen. Our EcN probiotic will specifically recognize EHEC cells and deliver a malicious DNA payload through a type of horizontal gene transfer known as conjugation. As antibiotics decrease in efficacy over time, the development of a comprehensive treatment for bacterial infections is crucial and our EcN probiotic seeks to fill this growing need.https://static.igem.org/peertube/streaming-playlists/hls/ed449c8e-ce80-424f-a05e-c3d1415612a5/d46a0d73-b8a3-4bdc-9c02-90e0510f07c7-master.m3u8https://video.igem.org/videos/embed/vikojysduAUSs7KrnnZ9WR664012024-12-04T16:33:33.535ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gaVKyEU462H2u1qAotGeishttps://video.igem.org/lazy-static/thumbnails/7ccc1c0d-e2d1-43a9-b1f0-75caa97bb8d8.jpgDual-Targeting Gemcitabine-Resistant Pancreatic Cancer with Novel Engineered NanobodyOur group works on a novel dual-targeting nanobody that can target EGFR and HER2 on pancreatic cancer cells. The Nanobody is expected to work synergistically with Gemcitabine to overcome the resistance in pancreatic cancer cells.https://static.igem.org/peertube/streaming-playlists/hls/7adbe62c-837e-48fc-8e0e-21fca50e05f8/ebd48ea7-7149-4dcc-965b-465cef3684d6-master.m3u8https://video.igem.org/videos/embed/gaVKyEU462H2u1qAotGeis6320342024-12-03T08:07:18.343ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jkqChofo8LtDpaPTCGKmy9https://video.igem.org/lazy-static/thumbnails/ed0051a9-30e0-47f6-89fb-dbff28b8ad6c.jpgHeartecho: A cancer screening kit for post-myocardial infarction patientsPatients with cardiovascular diseases (CVDs) such as myocardial infarction (MI) have an increased risk of developing cancer. The emerging research field of reverse cardio-oncology demonstrates that multiple cardiovascular diseases including MI could promote cancer progression. To identify MI patients at risk of developing cancer, we designed a screening kit Heartecho that employs a Loop-Initiated RNA Activator (LIRA)-based system to detect microRNAs that are both highly expressed in MI patients and capable of promoting cancer. We employed bioinformatics methods to identify two microRNAs, miR-142-3p and miR-210-3p, as optimal biomarkers, and designed LIRAs that target these two microRNAs. Finally, we chose chromogenic method to show results visibly. The detection liquid will change color from yellow to purple to indicate the presence of these two microRNAs in the samples. As a new detection system, Heartecho provides a rapid and simple way to help MI patients aware of risk of cancer.https://static.igem.org/peertube/streaming-playlists/hls/947acdb5-794b-4a33-b1c5-0aebc16fbf10/8e502d3f-e86e-4a74-8728-3e10c1ec7138-master.m3u8https://video.igem.org/videos/embed/jkqChofo8LtDpaPTCGKmy96280692024-12-03T08:07:32.387ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9eKMyaK2jHmxiJijZeiF3Dhttps://video.igem.org/lazy-static/thumbnails/595d119a-70fa-4b14-9575-df0fd0d2a5d5.jpgREBolutionising Drug Delivery: Repurposing Mechanical Proteins for Endosomal EscapeEndosomal escape is a crucial rate-limiting step for the cellular uptake of drugs; this greatly diminishes the panel of potential drugs that can be used, as cells degrade the vast majority of molecules they might sequester in their endosomes or lysosomes. We looked to refractile bodies (R bodies) for a solution — these are enormous bacterial polymer proteins that have been shown to burst paramecial food vacuoles in acid-activated extension. We envisioned that this mechanism could be repurposed to rupture endosomes and lysosomes to administer therapeutics directly into a cell's cytosol. We have designed a series of R body proteins with conjugation handles to attach drugs or excipients to them, and conducted a series of in vitro assays to demonstrate their potential as a modular chassis for drug delivery. We believe our simple, brute-force mechanical solution to endosomal escape will improve drug potency and minimize off-target toxicity —REBolutionising drug delivery.https://static.igem.org/peertube/streaming-playlists/hls/42b4c313-8365-4549-aede-3e0b4df66b2d/12c5af1b-b4f2-45e4-a0ba-92bc42e70fa7-master.m3u8https://video.igem.org/videos/embed/9eKMyaK2jHmxiJijZeiF3D6280632024-12-03T08:07:38.090ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rqXMmTRHVGBbEmbFonYryohttps://video.igem.org/lazy-static/thumbnails/69ba4807-1734-4cbe-a17d-dafa7a99a159.jpgBringing Hope for FSHDFacioscapulohumeral muscular dystrophy (FSHD) is a rare neuromuscular disorder affecting approximately 1 in 12,000 people. It causes progressive and highly variable loss of skeletal muscle, affecting the face, shoulders, arm, pelvic girdle, or legs and causing symptoms such as debilitating pain and fatigue. For some, getting around without a wheelchair is an impossible challenge, while others struggle to hold their own children or smile at their friends. FSHD is caused by aberrant expression of the transcription factor DUX4. This year’s Stanford iGEM team’s efforts have focused on developing a novel therapeutic for FSHD centered around overexpression of a shortened DUX4 isoform with an added KRAB repression domain. Through our educational efforts, patient outreach, and collaborations with the FSHD Society, we aim to raise awareness for FSHD while building on existing work by assessing the therapeutic potential of our newly engineered molecule.https://static.igem.org/peertube/streaming-playlists/hls/cdf0b1a3-acf7-46eb-9215-da4b0907436a/4b80bd35-b372-4dc7-8f71-2d0920450dd3-master.m3u8https://video.igem.org/videos/embed/rqXMmTRHVGBbEmbFonYryo6200362024-12-04T16:51:50.565ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/qUBNFCyWCbW22HMKpsbQ9Ghttps://video.igem.org/lazy-static/thumbnails/b5ff0361-c8b0-4cdb-807b-48ba8f911235.jpgBevatech: Rapid Anti-Counterfeiting Aptamer-based Lateral Flow Device for Detecting BevacizumabDrug counterfeiting has been a significant global threat in recent decades, accounting for over 6000 counterfeit cases in 2021. This issue poses a critical threat to cancer patients in vulnerable regions, including war regions and developing countries that do not have sufficient facilities for testing. In previous years, The U.S. The Food and Drug Administration identified more than 19 medical facilities distributing Bevacizumab, a vital cancer drug that explicitly targets Vascular Endothelial Growth Factor (VEGF). To tackle this problem, our team designed an aptamer-based lateral flow test strip that provides a rapid, affordable, and sensitive point-of-care device that can be distributed globally and operated without specialized expertise. We optimized a DNA aptamer sensor that sensitively binds to Bevacizumab active ingredients and immobilized it onto the LFA membrane. Through this innovation, potential improvement in patient treatment quality assurance can be achieved, ensuring access to genuine cancer treatment for all.https://static.igem.org/peertube/streaming-playlists/hls/c9b411c5-bf39-43db-b3fa-7fb38b68ff88/ac4e1f6b-efa0-4df3-a3ec-eff4fa375f68-master.m3u8https://video.igem.org/videos/embed/qUBNFCyWCbW22HMKpsbQ9G7120322024-12-04T16:33:55.805ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/6WQR6sAdcxnUcJeRHHeXQ5https://video.igem.org/lazy-static/thumbnails/41418bad-7884-4197-93f1-261d1169e440.jpgVEBATIN-Engineering bacteria to inhibit solid tumor proliferation by competing VEGFOne of the major challenges in the treatment of solid tumors arises from the immunosuppressive nature of the surrounding tumor microenvironment（TME）, which weakens the immune system's cytotoxic ability. Currently, therapeutic strategies targeting the solid tumor microenvironment have gained extensive attention, while most existing treatments still confront with challenges such as off-target risks. Our team has noticed that harmless Escherichia coli Nissle 1917(EcN) can automatically colonize the tumor microenvironment, demonstrating excellent targeting potential. Therefore, we plan to utilize the angiogenesis mechanism driven by vascular endothelial growth factorin （VEGF）in the human body. We plan to genetically modified EcN to express VEGF competitive binding receptors under ideal conditions of TME and conduct a surface display in ECN. By integrating and consuming VEGF in the tumor microenvironment, we plan to reduce its concentration in the TME, thereby effectively inhibiting angiogenesis in tumor areas and ultimately suppress tumor proliferation.https://static.igem.org/peertube/streaming-playlists/hls/3025f5a6-ab92-4b82-98d4-e3a8276eea98/c999eb74-9e1e-4be8-bd6d-63a444233933-master.m3u8https://video.igem.org/videos/embed/6WQR6sAdcxnUcJeRHHeXQ5715012024-12-04T16:34:02.819ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/oBaFo243A6HAPshbbbptUihttps://video.igem.org/lazy-static/thumbnails/a3e2dcbc-e157-499a-8558-6d571c46a0ac.jpgATROPOS: A multidimensional approachWe are iGEM IOANNINA introducing “ATROPOS: Changing the Fate’s design”, an advanced system based on the CRISPR CAS 13 technology. Our goal is to offer a safe and efficient treatment against encephalitis induced by WNV infection. However, “ATROPOS” extends beyond its scientific purpose. Behind every project are people, experiences, lessons, and stories. Through our live stage talk, we want to share our story: how we learned about the harsh reality of encephalitis through the powerful words of those who have suffered from it, how we raised awareness in our community about this significant issue, how we addressed the challenge of misinformation, how we educated young people on scientific concepts, and ultimately, how we succeeded in making science a fundamental part of everyday life, bridging the gap between science and society.https://static.igem.org/peertube/streaming-playlists/hls/b7120c1e-7c92-48f3-92e3-bdc4e384699d/0aa77ef5-78d2-49f1-9de3-0397fb0330dd-master.m3u8https://video.igem.org/videos/embed/oBaFo243A6HAPshbbbptUi4440152024-12-04T15:28:52.079ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/izqbdsbkLhkE37FLDFDqYphttps://video.igem.org/lazy-static/thumbnails/496d1fe2-f2c1-4010-86aa-d3287cda73bd.jpgGeneral disease detection with Protease and Aptamer (GPA)Aimed at creating a new methodology for disease diagnosis, GPA combines AI with protease-based circuits to accomplish modularization, the core value of synthetic biology, which is embodied in the design of our system－the variable biomarker recognition part and the constant signal amplification and output part. For the first part, featuring on flexible structures, aptamers (i.e., single stranded nucleotides) recognize variable biomarkers. Additionally, an AI tool－MAGA, has laid foundations for applying aptamers to biomarker binding. With MAGA, given a biomarker of a specific disease, we can obtain different aptamers recognizing it with high affinities. For the second part comes the protease-based circuits to transform and amplify signals. For the third part, a special designed gold colloidal test serves as the output. With GPA, we envision a future where the primary disease diagnosis takes fewer time, costs lower, prioritizes user-friendliness and ensures everyone a healthier life.https://static.igem.org/peertube/streaming-playlists/hls/8e55ccfa-0778-474a-9e0b-81b22e0663ff/0944d1cb-e03a-451e-b4be-6f44ad64e039-master.m3u8https://video.igem.org/videos/embed/izqbdsbkLhkE37FLDFDqYp6480242024-12-03T08:08:12.122ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/teaB6eH5c52Lh6Kr6KJaaHhttps://video.igem.org/lazy-static/thumbnails/03345367-ec56-4463-a66b-864f342a5bba.jpgThe Dangers of Blind Adoption of AIAI has gone from being largely science fiction to being at everyone’s fingertips. Systems like AlphaFold have helped thousands of scientists in their research. Classic computer programs have often struggled with the complexity and scale of biological data like DNA, but recent AI has become very good at finding patterns in large-scale unstructured data. At the same time, mistakes are still quite common, and often presented to the user in a way that’s difficult to spot. We go through failing cases of current state-of-the-art models, practical advice on handling them, and future options for better model design that might alleviate that burden from the user. This proposal is for a joined talk by members from two iGEM Teams (Lucas Osenbruggen from iGEM Eindhoven and Kilian Mandon from iGEM Aachen).https://static.igem.org/peertube/streaming-playlists/hls/dc7d5506-1893-49e2-b1d8-c2d3b715bd97/3433711f-24ca-4706-82dd-a401754dbc6a-master.m3u8https://video.igem.org/videos/embed/teaB6eH5c52Lh6Kr6KJaaH6310502024-12-04T15:31:56.005ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/wBcAxfxJVJKULYvbdxnbpUhttps://video.igem.org/lazy-static/thumbnails/c422d282-9bf5-487e-8f46-57d26dc3bb42.jpgMaking handbook guides for future iGEM teamsGiving back to the iGEM community is a big part of participating in the competition. In this talk, we will review how we have prepared three different handbooks for different parts of our project that future iGEM teams will be able to consult. These handbooks cover Human Practices, Entrepreneurship and a handbook manual on how to use our improved part.https://static.igem.org/peertube/streaming-playlists/hls/f7dc5675-5e45-45e7-995c-98f364674d8a/823eb08b-d3fe-40c0-85eb-b837a13c55b4-master.m3u8https://video.igem.org/videos/embed/wBcAxfxJVJKULYvbdxnbpU4970132024-12-04T16:34:07.924ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/um52FTupk9jzr97Vf3yznmhttps://video.igem.org/lazy-static/thumbnails/50bba2ac-c364-40a9-b1d7-223215790483.jpg“Memory&happiness Puzzle”——Engineered bacteria used for the treatment of central nervous system d...In the present study, we engineered probiotics to produce small molecules for treating depression and Alzheimer's disease. For depression, utilizing molecular docking and SPR, we identified inosine as a molecule capable of decoupling SERT-nNOS. We engineered Lactobacillus plantarum L168 to produce inosine by incorporating the key enzyme gsk. The engineered probiotics release inosine in the gut, which then travels through the bloodstream to the brain, disconnecting SERT from nNOS to alleviate depressive symptoms. Regarding Alzheimer's disease，we identified tetrahydrofolate as an effective LilrB3 binder and produce it using the key enzyme sequence folKE. Tetrahydrofolate binds to LilrB3 receptor, preventing APOE4 interaction and inhibiting Aβ deposition. Accordingly, we genetically engineered Lactobacillus plantarum L168 to biosynthesize theanine and niacin, aiming to develop therapy for Alzheimer's disease and depressions, respectively. Our aim is to assist patients suffering from depression and Alzheimer's Disease in reclaiming their cognitive functions and emotional well-being.https://static.igem.org/peertube/streaming-playlists/hls/e58d3dab-9e5a-4401-9906-f7a38f71349a/93121b0f-50f2-424c-bee8-5e3a520c36ce-master.m3u8https://video.igem.org/videos/embed/um52FTupk9jzr97Vf3yznm733062024-12-03T08:08:41.801ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/u1G2jYiANbX977SfEV61r6https://video.igem.org/lazy-static/thumbnails/3c3c4cf0-9d57-419a-82ad-7e8c3218f118.jpgSanaGel: Targeted ductal carcinoma bacteriotherapySanaGel is an innovative targeted ductal carcinoma bacteriotherapy developed using synthetic biology, ​​molecular biology, and materials science methods. The system comprises non-pathogenic Escherichia coli genetically engineered to produce a tumor-targeting peptide that selectively binds cell surfaces of cancer cells and forms pores, leading to tumor cell burst and eradication. Aside from the peptide's efficiency, we have implemented a Kill Switch (Suicide Gene) to ensure higher levels of safety control. Modified bacteria are encapsulated into agarose and chitosan-based hydrogel scaffolds, solidifying upon temperature rise after the intratumoral injection. Due to the careful fine-tuning of the gel's pores and sol-gel transition temperatures, hydrogels minimize bacterial leakage and ensure the system's local action. The project has the potential of opening the door to the development of novel sustainable cancer therapeutics that are not only efficient but also exhibit reduced systemic side effects on the healthy cells of patients.https://static.igem.org/peertube/streaming-playlists/hls/e2d88c26-18b2-40af-9805-53224aa5d107/5d2964f7-2d1b-4c38-a925-706829f80b5a-master.m3u8https://video.igem.org/videos/embed/u1G2jYiANbX977SfEV61r66090182024-12-04T15:33:32.927ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9pdqCwMQwhLKQktbuaNjdqhttps://video.igem.org/lazy-static/thumbnails/1fe0961d-6fa8-421b-b65d-ac45f8c39ac0.jpgOvercoming Design and Data Collection Challenges for MicronautWhile developing our microRNA detecting gene circuit, we encountered complex challenges. One major challenge was how to adapt a system originally developed for use in human cell lines, and thus relied on principles of eukaryotic gene expression, to an E. coli-based environment (in vivo and in vitro). Among our considerations were changing the gene's promoters, considering multiple possible sites for the relocation for our miRNA target site, and cutting out introns of originally eukaryotic genes. Another was how to take fluorescence readings when such expression occurs under endogenous promoters, not stronger T7 promoters. We had to re-evaluate the way in which we were taking the measurements and modify our expectations, and we were ultimately able to produce notable fluorescence. We hope to share our experiences in greater detail so that we may learn from other iGEM teams while other iGEM teams learn from our own approach.https://static.igem.org/peertube/streaming-playlists/hls/4406df79-ea8b-467b-b927-83bd9b29ce98/2a6ff491-8412-4612-a1d0-148a4cafc3a4-master.m3u8https://video.igem.org/videos/embed/9pdqCwMQwhLKQktbuaNjdq4140232024-12-04T15:32:41.412ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/iPQ9nAUfDeKvy3WvEWGyPMhttps://video.igem.org/lazy-static/thumbnails/9e275af5-2a75-46d8-8275-87b2c53e93b6.jpgDetectiMOL - a Continuous Cortisol Monitoring PatchCortisol is a hormone involved in immune response, regulating the body, and stress response. Continuous cortisol measurements can give important insights to imbalances in this hormone signalling, for example in Addison’s disease or stress. While many approaches are being investigated, no final continuous wearable cortisol measuring device is publicly available yet. In this project a molecular mechanism around the use of the glucocorticoid receptor that binds cortisol specifically is being developed. In the future the basic molecular mechanism for cortisol ligand binding measurements could be done by electrochemical impedance spectroscopy. Here the receptor is attached to a gold electrode and changes conformation upon ligand binding, which changes the resistivity of the electrode and therefore electric signal. This concept is then implemented into a small wearable device that resembles a glucose monitoring device worn by diabetes patients to go with a publicly already established design.https://static.igem.org/peertube/streaming-playlists/hls/9058fc03-076a-48de-97a0-972c0854c6f3/8dd2e3c2-aafd-434c-b783-b96999a1bb7c-master.m3u8https://video.igem.org/videos/embed/iPQ9nAUfDeKvy3WvEWGyPM600082024-12-04T15:33:14.648ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/sVTK6YcvbvyX92t8TgwzMAhttps://video.igem.org/lazy-static/thumbnails/ca453a0e-b69c-4625-92df-3601119956f4.jpgCOALES – Clinical on-target Adhesive LLPS engineered systemIt is often said that if a medicine has no side effects, it's unlikely to work. Some of the most serious side effect causing drugs are chemotherapeutic drugs. COALES introduces a novel solution through targeted cancer therapy, leveraging Liquid-Liquid Phase Separation (LLPS) to enhance drug delivery precision. We aim to concentrate therapeutic agents like doxorubicin specifically, improving its effectiveness and reducing side effects. Traditional cancer therapies often result in severe toxicity and are costly, limiting access for many patients. With COALES, we hope to offer a more affordable, scalable, and accessible treatment alternative. COALES holds the potential to be adapted for various cancer types, offering an alternative to how cancer could be treated in the future. Throughout our project, we engaged in various activities related to Integrated Human Practices and Education to raise awareness and to obtain comprehensive knowledge.https://static.igem.org/peertube/streaming-playlists/hls/da13e9ae-a5aa-4a49-a421-d0c48d3963b8/d918f0b0-216a-41a7-b0a0-3613b5fcba37-master.m3u8https://video.igem.org/videos/embed/sVTK6YcvbvyX92t8TgwzMA602062024-12-04T16:57:28.756ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9KwhcJjbJwVJEknDJUpUWQhttps://video.igem.org/lazy-static/thumbnails/161a8ec7-405b-47e5-a0cc-0d08e09b7e5c.jpgBioluminescent rapid detection kit for Johne's diseaseThis project developed an innovative on-site detection kit for Johne’s disease by harnessing the NanoGlo luciferase enzyme and encapsulin protein to identify Mycobacterium avium subspecies paratuberculosis (MAP) in infected animals. The key aim was to create a portable bioluminescence detection device for rapid, field-based diagnosis. The result is a compact handheld device featuring a photodiode, Arduino, keypad, and LCD screen, all housed in a light-sealed, 3D-printed case. In healthy animals, the NanoGlo luciferase components SmBiT and LgBiT bind together, producing a bioluminescent signal. However, in animals infected with Johne’s disease, the encapsulin protein forms a cage, preventing this binding and eliminating the bioluminescence. The device detects the level of bioluminescence through the photodiode, and the signal is processed by the circuit board to display a positive or negative result. Data is automatically transferred to an Excel spreadsheet for easy analysis and record-keeping.https://static.igem.org/peertube/streaming-playlists/hls/46dcc06f-84f3-4332-848a-857544568794/693ac226-8c32-4274-9b1f-964f09a96f3c-master.m3u8https://video.igem.org/videos/embed/9KwhcJjbJwVJEknDJUpUWQ437042024-12-04T15:33:26.842ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/xonjfycdaszmCFB4h2oFyHhttps://video.igem.org/lazy-static/thumbnails/8d6f3a37-50e2-4a5a-9877-e0ad1b439c0a.jpgPOIROT -POInt-of-care miRNA detection device for Ophthalmic diseases Tracing-If your vision changes, your life will change. Glaucoma is a serious eye disease that can affect anyone. Even with modern medical technology, there is no cure for the disease, and the purpose of treatments is only to slow its progression. Late detection renders treatment delay, leading to a decline in QOV (Quality of Vision) with symptoms such as blurred decreasing vision, and even blindness. POIROT is aimed to detect glaucoma biomarker miRNA easily at home. We adopted a protein-based cell-free system to achieve rapid social implementation. The series of reactions proceeds isothermally, and test results can be visually determined by color changes, with useability emphasized. Furthermore, POIROT has potential applications for other diseases, as it can efficiently quantify disease-specific (tiny amounts) nucleic acids in body fluids.https://static.igem.org/peertube/streaming-playlists/hls/fe2acc0a-5605-4e94-a349-b617aa1ab7a5/1539fe99-413a-4586-941f-3a3aff461187-master.m3u8https://video.igem.org/videos/embed/xonjfycdaszmCFB4h2oFyH5330152024-12-04T15:35:23.030ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vZryguqRyYnh3XYBS4irnYhttps://video.igem.org/lazy-static/thumbnails/e66bae38-9b88-4759-a013-e82ea43634db.jpgGlycemic StabilizerGlycemic Stabilizer is a treatment project for type 1 diabetes patients. We have designed an AND part that can secrete insulin to reduce blood glucose during high blood glucose levels. To prevent low blood glucose, we have also designed a NOT part that can block excessive insulin secretion in a timely manner, thereby achieving precise regulation of blood glucose levels. We validated the feasibility of the plan through biological experiments. We also conducted social research and promoted knowledge of synthetic biology. In addition, we constructed a scientific model which is visualized of the project, designed user-friendly software with practical value and educational significance, and developed a blue light instrument which is successfully applied in experiments.https://static.igem.org/peertube/streaming-playlists/hls/f2de2a69-cd40-49ce-ac4c-5b2cf2b4c456/60ada70d-8f57-4781-8d6a-677e56c52e69-master.m3u8https://video.igem.org/videos/embed/vZryguqRyYnh3XYBS4irnY589052024-12-03T08:09:23.454ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/wTt9YQULHdLmhJwcsu1HjXhttps://video.igem.org/lazy-static/thumbnails/fab84a80-f6fe-4f28-b5e7-5d9b3be16ff2.jpgCAR_Ma - A next-generation in-vivo immunotherapyCancer is a complex disease that has plagued mankind for sometime. Humanity has developed almost as many weapons on cancer as we have on each other. Chemcial, radiological and even biological weapons have developed to little avail, due to their inability to takle the inherent complexities of cancer from the ground-up. Solid tumors act on multiple fronts simultaneously: One part rapidly growing parasitic organism, another part immune evasion, and finally one part self-sustaining microenvironment. To tackle cancer effectively, we need to be able to tackle the tumor in its multiple modalities, with a solution that is inherently multi-modal. CAR_Ma is this solution. Built upon our own multi-modal RNA - Combining sustained, controllable and transient expression, gene editing and modulation, and our nanoparticle delivery solution. We are able to engineer macrophages capable of targeting tumor cells, negating immune evasion, then penetrating and destroying the tumor from the inside out.https://static.igem.org/peertube/streaming-playlists/hls/fa21d3aa-f546-4a3e-b07a-b04711c238cf/58f9b4a1-56d2-48c9-ae4c-9dcd4ca239f2-master.m3u8https://video.igem.org/videos/embed/wTt9YQULHdLmhJwcsu1HjX609062024-12-04T16:56:28.775ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/duHNgcV4XgsGFHWbJDcGq1https://video.igem.org/lazy-static/thumbnails/877e55c4-be5c-411b-be13-232c548fe46e.jpgiEraser—Erase the Pain of Inflammatory Bowel Disease (IBD)Inflammatory bowel disease (IBD) is a chronic intestinal disease, known for its complex pathogenesis. Currently, it remains incurable and has a high prevalence worldwide, affecting an estimated 8 million individuals.We are an iGEM team from China, and we are committed to synthesizing E. coli with gene expression vectors, recombinant with selected inflammatory priming factors, adhesion factors, and anti-inflammatory factors for the treatment of IBD. Hope we can use the knowledge of synthetic biology to find a way out for IBD patients.https://static.igem.org/peertube/streaming-playlists/hls/65303f88-c2f9-4579-939a-02c80f39b6d8/57c2a3f7-b532-4b45-ae6b-c420a166b03c-master.m3u8https://video.igem.org/videos/embed/duHNgcV4XgsGFHWbJDcGq1579072024-12-04T16:34:30.195ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/wwxPoPtBp7HgJNmufxAo9ghttps://video.igem.org/lazy-static/thumbnails/c151a7b4-6cc9-4674-b6db-9f3c982e672a.jpgMuscureAs the incidence of IBD is increasing globally, the poor therapeutic experience, which the patients are required to receive long-term hormone injection and biologic combination therapy, is determined to seek a breakthrough. Our team stands to develop a more favorable treatment experience. Relevant studies have shown that lactic acid has an inhibitory effect on abnormally activated dendritic cells and cytotoxic T-cells in autoimmune diseases, and thus is expected to improve the symptoms of IBD patients. Based on the research, we designed a yeast engineered bacterium. We introduced a muscone detecting switch in the engineered yeast and activated the downstream pathway to express lactate dehydrogenase to produce lactic acid. Ultimately, the engineered bacteria will colonize the small intestine, enabling the patient to treat IBD by inhaling muscone gas in vitro therefore induces the yeast to synthesize a low amount of stabilized lactic acid in vivo.https://static.igem.org/peertube/streaming-playlists/hls/f73614b5-f596-4fb7-af28-eaf10607b6f7/922de49b-deb3-42e3-8ed8-b7b501516ec0-master.m3u8https://video.igem.org/videos/embed/wwxPoPtBp7HgJNmufxAo9g43002562024-12-04T15:34:35.915ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/2ZdTjZSof3ouL5LPfEcfSUhttps://video.igem.org/lazy-static/thumbnails/08bc9013-ffcd-4096-a576-597fd809bb28.jpgBacillus Lipase Integrated Secretion System (BLISS)Exocrine Pancreatic Insufficiency (EPI) is a condition where the pancreas fails to produce sufficient digestive enzymes, leading to malnutrition. It is treated with pancreatic enzyme replacement therapy, an oral drug containing porcine-derived pancreatic enzymes. As a more ethical and economic treatment option, we present the Bacillus Lipase Integrated Secretion System (BLISS), a probiotic that secretes synthetic digestive enzymes suitable for the human body. We plan to transform B. subtilis with the human pancreatic lipase and procolipase genes, along with a glucose-mediated switch mechanism for inducible expression. We have also developed a comprehensive model to determine the timescale of enzyme production and secretion. Our device also contains a biocontainment mechanism to prevent the device from functioning in unintended environments. In addition to our wet lab efforts, our team has developed a comprehensive education handbook as a synthetic biology resource for the homeschooled community.https://static.igem.org/peertube/streaming-playlists/hls/10167964-56d0-4d58-ad3b-946e8c59b218/c59090b3-d490-4d1e-90e4-453f1df251b4-master.m3u8https://video.igem.org/videos/embed/2ZdTjZSof3ouL5LPfEcfSU623052024-12-03T08:09:36.835ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/k1jgLB6XmJHonmjZomQsuBhttps://video.igem.org/lazy-static/thumbnails/79e9498d-a0e4-4c41-a0df-4a8d44a80fb7.jpgAntimicrobial peptides: A Novel approach to Treating Skin and Soft Tissue InfectionsAntimicrobial resistance (AMR) is a global health concern. This current resistance situation raises fears about a post-antibiotic era in which antimicrobial treatment is no longer a possibility. Antibiotics are typically the recommended course of treatment for infections such as skin and soft tissue infections (SSTIs). Concerns about AMRs has prompted researchers to find new therapeutic options. Antimicrobial peptides (AMPs) are a noteworthy alternative that has attracted interest in biomedical studies. In our stage talk, we will discuss the intriguing potential of AMPs as a cutting-edge treatment for SSTIs. As our project involves cloning AMP genes from the thermophilic bacteria Brevibacillus borstelensis AK1 and heterologously expressing them in Escherichia coli, we will briefly discuss the potentials of AMPs from thermophilic bacteria as a robust, stable treatment for SSTIs. We will also discuss the project's findings and outline our future goals to overcome the difficulties and roadblocks in creating innovative AMPs.https://static.igem.org/peertube/streaming-playlists/hls/99e8e51d-cf21-467e-accf-8077772f5be3/589a8c02-2fc4-414c-a2f6-7e920410174c-master.m3u8https://video.igem.org/videos/embed/k1jgLB6XmJHonmjZomQsuB498072024-12-04T15:34:16.528ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/hoL2VqNHXSy65wA41YZjn2https://video.igem.org/lazy-static/thumbnails/96543d5b-6884-4ae3-8dea-06bb590ba4a1.jpgMicroDETECTThis project develops a diagnostic platform targeting microRNAs, combining polymerase self-amplification and a two-step CRISPR reaction to diagnose various cancers. The system first utilizes machine learning to screen target cancer-related microRNAs, then amplifies the target signal using a signal self-enhancement system constructed by a two-step polymerase reaction, and combines the CRISPR system for secondary signal amplification. Finally, the results are captured by single-molecule fluorescence super resolution microscopy for automated numerical analysis to derive the diagnostic outcome, establishing a quantitative analysis platform for fluorescence values and target concentrations. Key features of this diagnostic system include: no requirement for PCR, suitability for various operational environments, high accuracy, and adjustable sensitivity.https://static.igem.org/peertube/streaming-playlists/hls/84bfb7c6-bf59-4c29-9955-1f8651895173/eba125c5-ffa7-4fa2-9444-148db134b835-master.m3u8https://video.igem.org/videos/embed/hoL2VqNHXSy65wA41YZjn26650112024-12-04T16:35:03.677ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ryeJSCC7xCPaoV84W7YPcMhttps://video.igem.org/lazy-static/thumbnails/c105e0d0-c7e9-4b65-87f2-3e5cec47d91f.jpgTaking the fast lane into the future of synthetic biology with EBRC RoadmapsThe Engineering Biology Research Consortium (EBRC) is a nonprofit science policy organization dedicated to advancing synthetic (engineering) biology to meet global needs. EBRC is an inclusive, interdisciplinary community that works toward informed policies and discussions around research strategy, security, education and workforce, and international engagement. Working with the synthetic biology community, EBRC writes and publishes Research Roadmaps, which set out milestones for the next 20-30 years of synthetic biology research and technology development towards overcoming some of our biggest challenges, including tackling the climate crisis and keeping humans alive and healthy in Space. The roadmaps, freely available online, can inspire new innovations and applications for the latest tools and technologies from the next generation of scientists and engineers. Come learn about what’s ahead for synthetic biology!https://static.igem.org/peertube/streaming-playlists/hls/cef4bbf5-8fb3-4312-a439-91c0a128ac67/44325e96-0330-4d87-a96b-10add022a035-master.m3u8https://video.igem.org/videos/embed/ryeJSCC7xCPaoV84W7YPcM881022024-12-03T21:48:28.742ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/cqtVSFUHRR4UaEiimGwv7Jhttps://video.igem.org/lazy-static/thumbnails/43ce24b1-cc00-4a32-8534-6ff8ed418d00.jpgCarvengerX：Novel exosomal tumor therapy using bidirectional calcium overload platform built with ...UM_Macau utilized synthetic biology to construct a controlled calcium overload system for killing cancer cells. We selected the MscS and hTPRC1 ion channels, which are sensitive to ultrasound, as the target proteins and introduced their gene sequences into different plasmids to express these ion channel proteins on the chassis cell HEK293. After successfully expressing the channel proteins, we used the lamp2b protein to package the them, also synthesized using synthetic biology, into vesicles (EVs) using exocytosis. We then allowed the vesicles to fuse with the target cell. Finally, we induced the calcium ion channels on the cancer cell membrane and the endoplasmic reticulum calcium release channel (RyR) in the cancer cells to open under the combined action of ultrasound and hNOS2, significantly increasing the intracellular calcium influx and releasing the calcium the endoplasmic reticulum. This triggered calcium overload in cancer cells, leading to cell death and achieving an anti-cancer effect.https://static.igem.org/peertube/streaming-playlists/hls/5c7f9667-2efb-4bb3-8fdf-caa80c4bcf0a/20fddc23-e414-4199-b252-16700eb0fb44-master.m3u8https://video.igem.org/videos/embed/cqtVSFUHRR4UaEiimGwv7J6260112024-12-04T16:35:13.418ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/1LY6MPTHNhxHUMD9uBbdQchttps://video.igem.org/lazy-static/thumbnails/334d1006-76ec-4888-94e3-7b3e36b891a3.jpgPreCyse | Redefining Cystic Fibrosis Gene Therapy with Next-Generation mRNA-Based Prime Editing T...Cystic Fibrosis (CF) is the most prevalent inherited disorder, characterized by mutations in the Cystic Fibrosis Transmembrane Conductance Regulator (CFTR). In human lungs, dysfunctional CFTR leads to a decrease in mucociliary clearance, ultimately resulting in organ failure and death. Current treatment strategies are limited in terms of speed, precision, and effectiveness, often failing to achieve long-lasting improvements. Additionally, high costs and limited accessibility of pharmaceuticals contribute to a poor prognosis for many patients worldwide. PreCyse offers the next generation of prime editing technology (PrimeGuide) and our optimized lipid nanoparticle (AirBuddy) for the lung-specific delivery of therapeutic mRNA. We introduce our highly sensitive and context specific reporter system to measure Prime Editing Efficiency. We improved our technology in organoids from human nasal epithelial cells of CF patients, targeting the most common genetic alteration (F508del). Our efforts contribute to a future where cost-efficient, easy-to-use, and accessible therapeutics counteract promote personalized medicine.https://static.igem.org/peertube/streaming-playlists/hls/06474c72-e584-4d2a-a392-3b3e09347c5b/f435b21f-9fe2-440f-a862-6751bb2a5a3b-master.m3u8https://video.igem.org/videos/embed/1LY6MPTHNhxHUMD9uBbdQc5600342024-12-04T16:35:30.105ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/syZPXBnKBW6gswXySvDLKUhttps://video.igem.org/lazy-static/thumbnails/374b51d8-53fc-406d-9730-83817a34889e.jpgWhy Killing Sometimes is GoodInvasive species exist everywhere, being brought to a place that they should not be and wreaking havoc in the natural ecosystem. Most current solutions to deal with plants or animals which should not exist in the local environment are either time-consuming, harmful to the local flora or fauna, or both. In our iGEM project we have attempted to come up with a solution that is both specific enough to target our species of interest and that won’t require too much time from the people who are supposed to use our solution. This project incorporates both synthetic biology and technology, something that we believe will be a needed combination to take care of issues with invasive species in the future.https://static.igem.org/peertube/streaming-playlists/hls/d7290afa-0edf-46b4-817a-fad18ba4177a/7bad8e10-49ee-4406-b232-c9979da8cb5a-master.m3u8https://video.igem.org/videos/embed/syZPXBnKBW6gswXySvDLKU518092024-12-04T15:34:53.355ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/cgiyKHqw3WikK2veouDBKkhttps://video.igem.org/lazy-static/thumbnails/a76347c7-5a19-4393-a4d5-d25c8c4e8b1d.jpgIntellectual property rights in science: as open as possible, as closed as necessaryCommercializing science is not trivial, as there is an ongoing debate between open innovation and protecting intellectual property. However, both sectors contribute uniquely to societal progress. Without a collaborative research environment, scientific breakthroughs would be fewer, leading to slower innovation. Without business-minded individuals, innovations would not reach the end users at all. In this talk, we will highlight the importance of intellectual property (IP) and outline the different types of IP protection available. Drawing from our personal experience of taking an idea from concept to patent, we will demonstrate how this approach enables business growth, attracts investors, and continues to contribute to the advancement of science. By bridging the gap between scientific discovery and commercialization, we aim to show how IP can drive both innovation and business success.https://static.igem.org/peertube/streaming-playlists/hls/5b3781a6-de83-41c8-a02e-fe28a789dbc5/19313576-8140-4b2e-88c6-fbc5706da0c9-master.m3u8https://video.igem.org/videos/embed/cgiyKHqw3WikK2veouDBKk673032024-12-04T16:35:36.650ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/a1bX45FwQijGX7Zw3FaBrkhttps://video.igem.org/lazy-static/thumbnails/acdb75f7-cc1c-4f53-be8c-04ec3503b894.jpg“What are you doing in iGEM?”: Reflections of a Humanities StudentiGEM is a world-renowned competition that highlights the utility of synthetic biology. Naturally, as a joint honours student studying Linguistics and Social Anthropology each time I’ve mentioned participating in iGEM to anyone, I get met with the very pertinent question “What are you doing in iGEM?” This brief talk will aim to introduce what Linguistics and Social Anthropology teach as their own disciplines before discussing how those lessons influenced and shaped my iGEM journey and how they were useful in influencing the thinking and activities of the whole team. I will end by highlighting what I’ve learned from this STEM-focused project and how the humanities perspective has helped our team on its road to success at iGEM, emphasising the value of interdisciplinary collaboration.https://static.igem.org/peertube/streaming-playlists/hls/48e8fee0-e326-4a2d-9730-ea29e74153c1/26dd78f1-5a14-42e3-9c05-d1fdaa05d6c9-master.m3u8https://video.igem.org/videos/embed/a1bX45FwQijGX7Zw3FaBrk460052024-12-04T15:35:46.061ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/exsZxKNnEMPxE8omCagsfZhttps://video.igem.org/lazy-static/thumbnails/8724b928-e543-4811-b7e0-5bbdae29555b.jpgPrevalence of errors in lab-made plasmids across the globePlasmids are indispensable in life sciences research and therapeutics development. Currently, most labs custom-build their plasmids. As yet, no systematic data on the quality of lab-made plasmids exist. Here, we report a broad survey of plasmids from academic and industrial labs worldwide. We show that nearly half of them contained design and/or sequence errors. For transfer plasmids used in making AAV vectors, which are widely used in gene therapy, about 40% carried mutations in ITR regions due to their inherent instability, which is influenced by flanking GC content. We also list genes difficult to clone into plasmid or package into virus due to their toxicity. Our finding raises serious concerns over the trustworthiness of lab-made plasmids, which parallels the underappreciated mycoplasma contamination and misidentified mammalian cell lines reported previously, and highlights the need for community-wide standards to uphold the quality of this ubiquitous reagent in research and medicine.https://static.igem.org/peertube/streaming-playlists/hls/6dab7e75-ad4c-4255-881d-0b473d39cc75/1ea87452-df18-4df9-89a6-96f8afbb761b-master.m3u8https://video.igem.org/videos/embed/exsZxKNnEMPxE8omCagsfZ1068032024-12-03T21:56:29.406ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/hugKWDrnEiFpKTST6rkZiJhttps://video.igem.org/lazy-static/thumbnails/c5956a25-2a09-46e6-a1a8-c83f33e069be.jpgIchthyoCare - spreading awareness of ichthyosisIchthyoCare was designed to suggest an alternative treatment approach for ichtyosis- a genetic skin disease. It is a rather rare condition, which is why we put a great focus on spreading awareness of the disease in our overall project work and we want to continue doing that by holding this talk.https://static.igem.org/peertube/streaming-playlists/hls/8584c14e-4198-4b39-ab22-fcf84d3d5570/cb705953-5975-4c4c-beb2-211bf3ad8a78-master.m3u8https://video.igem.org/videos/embed/hugKWDrnEiFpKTST6rkZiJ394022024-12-04T15:34:21.327ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/fKGH1ofFqXNbPVwCz2bXMkhttps://video.igem.org/lazy-static/thumbnails/3e8ab220-b9f1-4d5a-8df9-19f1b21a07af.jpgEmpowering iGEM Teams: Educational Resources and Best PracticesThe Educational Resources thrust of the iGEM Engineering Committee focuses on educating iGEM teams on good synthetic biology practices. Producing educational material that is widely accessible and useful to teams has been a core activity, primarily driven by both the iGEM Technology website and the webinar series run in previous years. These training materials cover the major challenges teams face from how to ideate a project to modelling key parts to the use of wet-lab synthetic biology and how to effectively communicate the work teams have done over the iGEM season. This talk will detail the resources that are available to teams, how teams can connect with the iGEM Engineering committee for support, challenges the thrust has seen teams have and discuss the recently published paper on iGEM webinar education by speaking to what has been done in the past and where we can go!https://static.igem.org/peertube/streaming-playlists/hls/777a028b-324a-4678-a3d8-6b12e3641841/cf6493a1-9bde-4f4f-a2ad-aaec53d9cbf4-master.m3u8https://video.igem.org/videos/embed/fKGH1ofFqXNbPVwCz2bXMk954022024-12-03T21:59:19.717ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/4RS219m8XcGzsxuXXChuhwhttps://video.igem.org/lazy-static/thumbnails/23e02097-e2bd-4fee-951d-6e6166f65276.jpgBioNet: Creating a Programmable SynBio Ecosystem for EveryoneMITRE are developing a systems engineering approach for synthetic biology. Our approach includes creating a “domain-specific language (DSL)” or grammar of synthetic biology workflows, and a software platform where scientists can program and execute those workflows. Individual operations that are programmed in the DSL can be executed by different labs or foundries. This approach will let us specialize and more readily reuse each other’s work and foster our ability to work together to do projects we can’t do alone. The DSL provides a well-posed, stylized, standardized set of operations and defined interactions to invoke them. Our prototype software platform supports workflow programming tools, a catalog of capabilities and providers, messaging protocols, and utilities to enable disaggregation and decentralization. I’ll present our approach, the grammar, and the platform architecture. I’ll also describe a web-based way to provide input on the grammar/DSL so everyone can get involved!https://static.igem.org/peertube/streaming-playlists/hls/1f41af59-4fa1-4f9d-b751-00a60cc7e68e/26bbc521-f739-4868-8920-ca9e201074a8-master.m3u8https://video.igem.org/videos/embed/4RS219m8XcGzsxuXXChuhw753042024-12-03T21:57:14.610ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/8f6NZig5QqEbZ2AkBBUky5https://video.igem.org/lazy-static/thumbnails/11abb8ee-34ea-455b-acd4-17cd9c3b6152.jpgBiodesign: Organizing Creativity Through InnovationSpread awareness about synthetic biology within the Biodesign field, organizing creative processes, using emergent technologies, and directing possible outcomes to lead potential startups through the discussion of design concepts and highlight the role of visual art as a powerful tool for science communication. While traditional methods like academic papers and lectures are important, they often fail to reach a broader audience due to their complexity. Visual art makes it accessible, relatable, and engaging.https://static.igem.org/peertube/streaming-playlists/hls/3aa7f6ca-3df8-47af-96d0-3ea551926de0/941d5c9d-c853-4a53-83c9-0238592f33bd-master.m3u8https://video.igem.org/videos/embed/8f6NZig5QqEbZ2AkBBUky51611022024-12-03T22:38:39.607ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/txeTGKijLXVQZrnoiE6Yhphttps://video.igem.org/lazy-static/thumbnails/318bd33a-3675-472f-8bd2-7abb920a8957.jpgIntegrating White-Box and Black-Box Modeling for Personalized Treatment and Experimental DesignOur modeling work incorporates experiments, visualizations, equations, and classical models as part of the quantitative characterization and mathematical modeling approach used in white-box models. For example, this includes protein simulations, molecular docking, and molecular dynamics simulations. On the other hand, we also leverage black-box models based on automation and AI, employing end-to-end models and time series models to simulate growth curves and product expression curves. This integrated approach of combining white-box and black-box modeling has informed and guided both product design and experimental strategies. It also provides personalized treatment recommendations based on patient-specific data, such as drug dosage and treatment cycles, while offering interpretability through visual simulations.https://static.igem.org/peertube/streaming-playlists/hls/df035c90-b7c8-4639-94cc-b346264c275f/a3cfe61b-dc95-4beb-930b-0e9757909846-master.m3u8https://video.igem.org/videos/embed/txeTGKijLXVQZrnoiE6Yhp603042024-12-04T16:35:51.430ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/fv5PcwoRtMb9YtVVQoEQdhhttps://video.igem.org/lazy-static/thumbnails/c6b8b428-fedc-4984-8696-9ca293078b9c.jpgiGEM Trivia With GenscriptiGEM Trivia With Genscripthttps://static.igem.org/peertube/streaming-playlists/hls/756f7a27-3ebe-45cb-ad0a-82a6d9730b98/7ce2f0b9-0f96-4eae-b6fe-556675d7b40d-master.m3u8https://video.igem.org/videos/embed/fv5PcwoRtMb9YtVVQoEQdh870022024-12-03T22:28:06.007ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/k9GUNCPHr6RQTd6tVPnpfNhttps://video.igem.org/lazy-static/thumbnails/00edea79-3679-4699-86a4-3bd806240722.jpgIntroducing SepScan - a novel diagnostic tool for sepsis and acute kidney injuryThe University College London iGEM team will be presenting SepScan, sponsored by UCL Biochemical Engineering, the Oxford-UCL Future Vaccines Manufacturing Hub, and BlueDot Impact. Learn about how we’re using a novel, quantifiable, lateral flow assay to improve health outcomes in the South Asia region.https://static.igem.org/peertube/streaming-playlists/hls/9b14cbf0-8226-4e48-ab3c-91e8373de62e/0f0cfd2b-e2e4-40cb-9d6d-3b53c194f205-master.m3u8https://video.igem.org/videos/embed/k9GUNCPHr6RQTd6tVPnpfN5800342024-12-04T16:36:08.918ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/s6TTbLqTZi9udzwAyFRLKEhttps://video.igem.org/lazy-static/thumbnails/33f96b4f-8b18-4bb9-8dd1-d556ed75e9bd.jpgmiRADAR: a paper-based test to simplify MS diagnosisMultiple Sclerosis (MS) is a neurological disease that impacts nearly 3 million people worldwide. For 10% - 30% of patients in the Netherlands alone, proper diagnosis can take months or even years due to the lack of a specific MS biomarker. To simplify MS diagnosis, miRADAR designed an accessible diagnostic test based on dysregulated miRNA patterns in blood. To detect these miRNAs, our test consisted of miRNA amplification, an RNA threshold detection system, and output signal generation using toehold switch logic gate circuits. Through multiple models we found eight unique miRNA biomarkers distinguishing MS from similar diseases, and designed optimal logic gate circuits. As a proof-of-concept, we developed a cell-free paper-based test that successfully detected an MS-relevant miRNA. With our test, we provide a modular framework for miRNA-detection to improve diagnosis of MS and many other diseases.https://static.igem.org/peertube/streaming-playlists/hls/d3604c38-e276-4deb-8b78-615c1ef967ac/18b30029-d2d9-4dd8-9fee-9ded24e77449-master.m3u8https://video.igem.org/videos/embed/s6TTbLqTZi9udzwAyFRLKE6110342024-12-04T16:36:16.119ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/7XGjk6kY8Gyt61pvj2EeVwhttps://video.igem.org/lazy-static/thumbnails/66144e9f-3e05-4553-ae27-6a6ac60d4ea4.jpgSynBio Communities Around The World - Part ITo make synthetic biology a major field of study in the twenty-first century, it is necessary to engage the general society in the scientific conversation, and together overcome problems with financing models, commercial translation of technologies, public perception, and laws. To achieve a more diverse representation of the synbio landscape, we see the need for international collaboration and knowledge sharing. Engaging regional leaders, representing SynBio Associations, to develop best practices for our international community; and understanding the current local challenges and what we can collectively do to overcome them. Above all, it’s important to enhance strong collaborations between the Associations, promoting an inclusive model, ready to embrace the future of SynBio, together.https://static.igem.org/peertube/streaming-playlists/hls/385d95be-a3e9-4644-a18c-83502dc1fff4/3ca99957-0ea3-453e-a46b-c05e79b4a31c-master.m3u8https://video.igem.org/videos/embed/7XGjk6kY8Gyt61pvj2EeVw1685052024-12-03T22:45:32.967ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/iMr9fdxpuSSEVyzncCZz6Dhttps://video.igem.org/lazy-static/thumbnails/4d5772cb-7878-42ba-b2b0-b6e3f66b0c69.jpgSynBio Communities Around The World - Part IITo make synthetic biology a major field of study in the twenty-first century, it is necessary to engage the general society in the scientific conversation, and together overcome problems with financing models, commercial translation of technologies, public perception, and laws. To achieve a more diverse representation of the synbio landscape, we see the need for international collaboration and knowledge sharing. Engaging regional leaders, representing SynBio Associations, to develop best practices for our international community; and understanding the current local challenges and what we can collectively do to overcome them. Above all, it’s important to enhance strong collaborations between the Associations, promoting an inclusive model, ready to embrace the future of SynBio, together.https://static.igem.org/peertube/streaming-playlists/hls/9003523f-0d62-45fa-92d9-77ab1d6b91b3/0ef655be-d2ce-4993-9583-cad91ccc7c0c-master.m3u8https://video.igem.org/videos/embed/iMr9fdxpuSSEVyzncCZz6D1593032024-12-03T22:49:42.036ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/5ABMvPZh1dA575kL1JY2PGhttps://video.igem.org/lazy-static/thumbnails/248459c6-87f4-4134-8505-8cdda90522bc.jpgHow Do We Improve Engineering in iGEM?The iGEM Engineering Committee's mission is to educate iGEM teams in synthetic biology engineering practices, promote accessible measurement and calibration protocols, and foster a community for developing predictable biological devices. Learn more about their work, how they promote team project success, and how you can join them!https://static.igem.org/peertube/streaming-playlists/hls/2539e55c-7e29-4d34-b7a3-2190599defd2/7e0097ad-4489-4cee-b41d-6fba33cab889-master.m3u8https://video.igem.org/videos/embed/5ABMvPZh1dA575kL1JY2PG958082024-12-03T22:34:25.663ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/7pEgwN61gFWrz5RSm9D9vJhttps://video.igem.org/lazy-static/thumbnails/016950d7-a06b-46e8-8da4-58b3d4f0a685.jpgThe De Novo Synthetic Biology Lab: Engineering Novel Capabilities in Living CellsThe De Novo Synthetic Biology Lab: Engineering Novel Capabilities in Living Cellshttps://static.igem.org/peertube/streaming-playlists/hls/33e485a3-5f50-455a-9dfc-fad193224da4/967e2680-8d34-4f65-a33b-ba3f19c8622d-master.m3u8https://video.igem.org/videos/embed/7pEgwN61gFWrz5RSm9D9vJ861052024-12-03T22:36:57.595ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/6m2fDgUEX8Yz6nhgydJ5mkhttps://video.igem.org/lazy-static/thumbnails/9a1cd4ee-2c81-4aa3-ac3f-269bef795959.jpgEngineering Solutions to Empower Research with Non-Model MicrobesThere’s a vast microbial frontier waiting to be explored beyond E. coli and S. cerevisiae. These lesser-known microbes have untapped potential for biotech innovations, but technical barriers have limited their adoption. In this session, we describe our open-source molecular toolkits and computational resources to tackle major barriers to working with non-model microbes, and how we're supporting the iGEM community. Join us to learn about how Cultivarium is working to provide a crucial foothold for synbio research in unconventional systems.https://static.igem.org/peertube/streaming-playlists/hls/2b49572e-a759-4a40-abd6-6c7106a0c53b/9c8c3de2-23f5-4b39-903c-d4e9996e977f-master.m3u8https://video.igem.org/videos/embed/6m2fDgUEX8Yz6nhgydJ5mk628022024-12-03T22:34:47.831ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/bLBi5AEYf81SvsCRp3zVvrhttps://video.igem.org/lazy-static/thumbnails/d30d4b85-49fc-4ea5-a3f4-71c1c5690b80.jpgGrowing Plant Synthetic Biology through iGEMChassis organisms such as E. coli and yeasts remain the go-to choices for the majority of iGEM teams. However, iGEM teams delving into plant synthetic biology projects face a series of challenges beyond the slow growth of plants; the scarcity of genetic components, established protocols, and essential resources can all hinder or discourage teams embarking on plant chassis projects. Here we will showcase the efforts of the iGEM Plant subcommittee on building the plant toolkit, developing and testing (and fixing!) vectors for the use of plant transformation, and our plans for the future. We want to facilitate plant-related projects, making them more accessible, for the upcoming generations of iGEM enthusiasts. We enthusiastically invite you to participate and provide us with your feedback and innovative ideas on how to support iGEM teams.https://static.igem.org/peertube/streaming-playlists/hls/5735dd0c-5e58-4382-a1eb-4a9ef7e8da07/b8fe873e-efd5-4a8f-817d-d736a224fbce-master.m3u8https://video.igem.org/videos/embed/bLBi5AEYf81SvsCRp3zVvr650042024-12-03T22:36:22.437ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/1dzQEveNRHQpeWuqH19sm7https://video.igem.org/lazy-static/thumbnails/f2732c86-d676-44f0-855c-86c7fbab6f71.jpgSynbiCITE: Changing the World with Synthetic BiologySupporting the growth of emerging companies - SynbiCITE's Professor Kitney joins us to share their innovative approach to fostering creativity, and innovation within the synthetic biology startup ecosystem.https://static.igem.org/peertube/streaming-playlists/hls/01c1c77f-308a-4022-b3d7-31cba1909216/c20c1800-d848-4d35-a4a9-d6b94eb577b4-master.m3u8https://video.igem.org/videos/embed/1dzQEveNRHQpeWuqH19sm7606032024-12-03T22:36:38.615ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/nsUdkF6oaMtc3Y2xt6Ahkfhttps://video.igem.org/lazy-static/thumbnails/a10898f0-5001-47df-81e3-14f9fd24dcb7.jpgXyna.bio - an iGEM Success StoryIntroduction to our platform xyna.bio, which originated as a collaboration of local iGEM teams and industry. xyna.bio is a platform that enables scientists to create, run and automate bioinformatics pipelines in an integrated ecosystem.https://static.igem.org/peertube/streaming-playlists/hls/add16d58-3402-486e-981e-bbdb70b0455c/7c7c2061-d9c7-40a5-b474-d8116a012f89-master.m3u8https://video.igem.org/videos/embed/nsUdkF6oaMtc3Y2xt6Ahkf7650102024-12-03T22:59:19.161ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/9ksPEit4p1ejVgdG35ADDchttps://video.igem.org/lazy-static/thumbnails/013ec712-8b72-478b-b478-1e3133c07925.jpgUnlocking the potential of high-throughput and automated systems for your projectsAt Cradle, improving our machine learning models with lab data requires lots of high-quality datapoints in a short amount of time. We leverage high-throughput experimental design and lab automation to reach our goals - and want to share some of our learnings from building a lab from the ground up. As more teams utilize tools like Tecan plate readers and OpenTrons liquid handlers, this talk aims to demystify these techniques for newcomers. We’ll explore the benefits of high-throughput experimental design and share practical, budget-friendly strategies for implementation, even under the tight deadlines of iGEM projects. Our goal is to demonstrate that high-throughput and automated workflows are not just for long-term, well-funded research, but can be implemented by anyone who is interested to learn. We'll show you how to adapt your experiments to high-throughput formats, use accessible tools and instruments, and increase your data output and reliability. Join us to discover how high-throughput methods can elevate your iGEM project and help you achieve ambitious results!https://static.igem.org/peertube/streaming-playlists/hls/4380c538-2fbc-4060-bab8-9d2ebfe22071/bac1257b-536e-4970-9064-6626a7f9cb0e-master.m3u8https://video.igem.org/videos/embed/9ksPEit4p1ejVgdG35ADDc983012024-12-03T22:58:48.904ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/epTHpvXUESTuLbe9kcDUTVhttps://video.igem.org/lazy-static/thumbnails/86afaf72-89e3-4533-ab3c-f6924b717335.jpgMastering Science Communication: Challenges & OpportunitiesRepresenting Mastering SciComm from iGEM Community (https://community.igem.org/projects/mastering-science-communication), Project Members will discuss their project, highlight the success of the first live cohort, share insights, and outline future plans, including registration for the next cohort, a survey for iGEM teams, potential collaborations, and a contest launch.https://static.igem.org/peertube/streaming-playlists/hls/6c9cc773-7070-464f-bff5-9b0f5945adeb/dccd5aed-4eb7-4c05-9cce-beb35249fe7e-master.m3u8https://video.igem.org/videos/embed/epTHpvXUESTuLbe9kcDUTV860022024-12-03T23:00:10.091ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/4UrZVAua3CkoirTSynkw6thttps://video.igem.org/lazy-static/thumbnails/3a11c5d2-f0ea-4dfc-8f7c-c7a2eaaa5a4b.jpgAqua Guardian^2The main aim of our project is to degrade PET and double enrich the degradation product TPA. We first use engineered E. coli BL21 strain to secrete turboPETase. After that, another engineered E. coli BL21 strain is responsible for enriching TPA and indicating the level of enrichment by expressing fluorescence after it transports TPA into itself. Next, we use C. elegans, a model organism that feeds on E. coli, as our recycler and amplifier. After two engineered E. coli BL21 strain have achieved the expected processing of PET and absorption of TPA, we introduce the C. elegans that feed on the engineered bacteria to avoid biological leakage, then further achieve the goal of enrichment and recycling. Meanwhile, the engineering of C. elegans is ongoing-we are attempting to create a kind of C. elegans with the ability to transport TPA into their intestinal cell, in order to further enrich TPA monomers.https://static.igem.org/peertube/streaming-playlists/hls/1f9e1d41-9959-4a78-9599-389dbec615bd/399c6359-6220-4114-a883-e427f70bbfef-master.m3u8https://video.igem.org/videos/embed/4UrZVAua3CkoirTSynkw6t563052024-12-03T08:13:47.723ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/qUfisnyBndVykqAEHQAsNghttps://video.igem.org/lazy-static/thumbnails/94597fe7-1937-4f40-8dbd-722443cc7cfd.jpgModeling in vitro and in silico for Synthetic Biology ResearchThe UFlorida iGEM team developed an induced pluripotent stem cell-derived Wet Lab model and computational Dry Lab model to study sepsis response in the bone marrow. The duality of modeling platforms provided the team with valuable insights on how to optimize the study of biological processes by leveraging synthetic biology tools. The team was driven to develop ex vivo models as an alternative to animal testing, emphasizing the team’s underlying bioethics focus. With the advent and growth of alternative modeling platforms and the United States government’s encouragement of their use, in silico and in vitro tools have immense potential for foundational and translational studies. The team will discuss the strengths and shortcomings of in vitro and silico models, connected to their bone marrow organoid research. Furthermore, the team will describe the biomanufacturing and computational design processes that lead to the creation of novel testing platforms.https://static.igem.org/peertube/streaming-playlists/hls/c9a6d130-abb7-417f-bec2-e4ff90b98393/3dac547c-d008-4527-8346-5528c06466b6-master.m3u8https://video.igem.org/videos/embed/qUfisnyBndVykqAEHQAsNg5780142024-12-03T08:13:47.781ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/uJBcab2zypwUXqEmBQUWf6https://video.igem.org/lazy-static/thumbnails/80dc26e4-e36f-4681-97a4-bf6cfc684011.jpgBeyond AlphaFold - Trends in Biological Sequence ModelsEpoch AI is a research institute investigating key trends and questions that will shape the trajectory and governance of AI. Earlier this year we released our report on Biological Sequence Models in the Context of the AI Directives, and in this talk we will ask and explore: What are trends in biological sequence models and how do they relate to trends in other domains of AI?https://static.igem.org/peertube/streaming-playlists/hls/e8b2cf13-c932-4ec2-95f2-d3d454a32ac9/623a9e75-5de7-42bc-92c1-9a94c6f8d104-master.m3u8https://video.igem.org/videos/embed/uJBcab2zypwUXqEmBQUWf6898022024-12-03T23:03:34.678ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/4oBd3PsjYpbg2bZBT7zbrthttps://video.igem.org/lazy-static/thumbnails/8c10f9ae-f0af-4fd4-a3bd-350a31e7cc6a.jpgPROtech: Precise RNA Oncotherapy technologyProtein-targeted therapies present challenges in cancer treatment, particularly when cellular redundancy enables cancer resistance. Furthermore, many mutations are synonymous, producing no detectable protein changes, leaving patients with untargetable silent mutations. To address this, our project focuses on an mRNA-targeting therapy using a Toehold Switch mechanism. This system selectively activates in the presence of cancer-specific mRNA, enabling precise delivery of cytotoxic proteins. The project developed a model to optimize toehold switch designs and validated its approach using yeast and human cell lines, focusing on pancreatic cancer. Additionally, educational and entrepreneurial initiatives were launched to further expand synthetic biology's impact.https://static.igem.org/peertube/streaming-playlists/hls/1b7379f9-188a-4c7b-8d36-7d5ac7ce96d5/11ce258e-8750-4824-be33-7cb74d89bfd7-master.m3u8https://video.igem.org/videos/embed/4oBd3PsjYpbg2bZBT7zbrt657072024-12-03T08:14:25.184ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/eemf6Rx8ykwfJb2Aq8KyHKhttps://video.igem.org/lazy-static/thumbnails/a4c3d333-68de-4c99-910c-81ab2cd11595.jpgnuCloud: The New Nucleotide-Based Data Storage CloudAs global demand for data storage skyrockets, studies report that traditional data centres are projected to be incapable of meeting the demands of the near future. They also cause environmental damage by depleting natural resources. nuCloud is a synthetic biology-based DNA data storage platform that addresses the unmet demand for global data storage. Inspired by the high storage density, durability, and efficiency of DNA, nuCloud offers a solid-phase enzymatic DNA synthesis system using a thermostable TdT variant. Combined with an automated microfluidic system and error-correcting software pipeline, nuCloud can encode digital information into nucleotide sequences, synthesize corresponding DNA strands, and decode it back to binaries for its users. This innovative approach provides a sustainable and scalable biomanufacturing solution to meet the data storage demands of the future.https://static.igem.org/peertube/streaming-playlists/hls/6b23f265-1f90-4179-a1a8-02cf16939a1d/7a8cf47d-70e1-40cd-b73b-36fc8d8c8706-master.m3u8https://video.igem.org/videos/embed/eemf6Rx8ykwfJb2Aq8KyHK6110522024-12-03T08:14:25.376ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/usXsJ3S1e3aV2cW6U6iaBuhttps://video.igem.org/lazy-static/thumbnails/fab754e1-4f5f-4d7a-913d-f5d3c928ad2d.jpgEcoMeGa:DHA-PCDHA is a crucial omega-3 fatty acid vital for brain and retina health, especially for cognitive function and fetal development. It exists in various forms, including natural triglycerides, ethyl and monoglycerides, and phosphatidylcholine, each differing in bioavailability. Phospholipid forms are generally considered more efficiently absorbed. XJTLU-CHINA's current focus is on biosynthetic phospholipids, particularly DHA lysophospholipids, to innovate industrial production methods. By improving the synthesis and availability of these forms, the team aims to enhance DHA's health benefits, contributing to advancements in biotechnology and its application in human health.https://static.igem.org/peertube/streaming-playlists/hls/e6836640-32ee-402b-b0c3-db7cde151806/c181d307-3e45-41ca-aa0c-5f76a2a2ad57-master.m3u8https://video.igem.org/videos/embed/usXsJ3S1e3aV2cW6U6iaBu6140102024-12-03T08:14:25.873ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gChe1Ty62DajWStU9AGdKVhttps://video.igem.org/lazy-static/thumbnails/c07f802f-300a-426d-895a-f1c6ab84dd4c.jpgBioremediation of 1,4-DioxaneBroad overview of industrial 1,4-Dioxane pollution in Michigan and experimental, community-oriented, and modeling-based efforts towards developing a 1,4-Dioxane bioremediation system using engineered freshwater bacteria.https://static.igem.org/peertube/streaming-playlists/hls/7e89dab0-f97e-47ed-8270-5ec017c67583/82ef56c3-cc80-448e-ac35-0ee8d70090a4-master.m3u8https://video.igem.org/videos/embed/gChe1Ty62DajWStU9AGdKV630032024-12-04T16:36:29.368ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/dBWDnWYmHc5Uf6t3UkKRqUhttps://video.igem.org/lazy-static/thumbnails/29c26d5e-6080-4f4d-8cc7-a4988301a0c7.jpgFireside Chat: How to Kill Your Startup & How to Keep it AliveJoin founders Stephanie Michelsen and Jens Michelsen for an engaging and candid fireside chat on the highs and lows of startup life. Together, they'll explore the critical do's and don'ts of launching, building, and scaling a successful company. Drawing from their own experiences, they’ll share insights on avoiding the common pitfalls that lead startups to failure and the strategies that help them thrive. Whether you're a first-time founder or looking to level up your business, this session will offer valuable lessons on how to navigate the startup journey and keep your company alive.https://static.igem.org/peertube/streaming-playlists/hls/66325f28-8475-44eb-aa7d-24db71aba3f0/223d2cad-1769-4c3e-82b3-56720480a0ca-master.m3u8https://video.igem.org/videos/embed/dBWDnWYmHc5Uf6t3UkKRqU1805022024-12-03T23:38:38.777ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/h4XyVhHpxoEZagcLpsxYJ7https://video.igem.org/lazy-static/thumbnails/e676cf72-aff2-4f85-b6e0-e56b9030a836.jpgHypoSense - a hypoxia-responsive biosensor for precision tissue microenvironment profilingThe complex relationship between low oxygen levels (hypoxia) and cellular function plays a key role in many biological processes and diseases. Our project aims to create a biosensor to quantitatively measure cellular oxygen levels and help better understand how hypoxia changes in the microenvironment, especially in tumors. Harnessing the hypoxia-inducible factor (HIF) pathway, we engineered yeast reporter cells that emit a fluorescent signal under hypoxia. This foundational research has the potential to help us better understand how hypoxic conditions influence metabolic adaptation, gene expression, and cellular responses. By adjusting the number of hypoxia responsive elements (HRE) in our biosensor, we aim to build a flexible tool for high-speed screening and analysis. This work not only contributes to our knowledge of hypoxia but also lays the groundwork for future medical applications, potentially guiding treatments for diseases affected by low oxygen conditions.https://static.igem.org/peertube/streaming-playlists/hls/821fb1d1-337f-45cf-a12c-df3016a5acc2/0cb9922c-e077-49a5-be22-9b03c626db1b-master.m3u8https://video.igem.org/videos/embed/h4XyVhHpxoEZagcLpsxYJ7608022024-12-03T08:14:56.013ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nMAXwZiGzkAtEsv3ieeCnShttps://video.igem.org/lazy-static/thumbnails/2e797074-b37d-4e13-85c8-5223adc56fd5.jpgBuilding and Maintaing a Syn-Bio Community at your InstitutionLearn how ASU iGEM members have worked to build a syn-bio community through a student developed program called Open Lab. Open lab is an initiative created by past iGEM members at and continued by this year's team to provide a community where undergraduates with little to no wet lab experience can participate in a semester long synthetic biology project. Each semester, the project focuses on creating an easy-to-digest goal for beginners with step-by-step instruction. Open Lab aims to create a community where students think critically, become confident in themselves and their ambitions, and see how fun science can be!https://static.igem.org/peertube/streaming-playlists/hls/b06decc1-74a2-4e4b-b927-d25bfd08ea7c/e002ca98-8270-4b4f-9db1-5c611631cfc4-master.m3u8https://video.igem.org/videos/embed/nMAXwZiGzkAtEsv3ieeCnS5560172024-12-03T08:15:11.488ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tUFjRUERfkKczK3drAP9q7https://video.igem.org/lazy-static/thumbnails/f27fea21-c549-4b1a-b9c7-f895f560a225.jpgPutting Freedom of Information Laws to Work in Synthetic BiologyDeveloping a project that is good for the world may require information that is difficult or impossible to obtain through literature searches, benchwork, or standard survey and interview methodologies. Faced with some practical challenges to understanding what the most effective and important applications of our device might be, our team utilized governmental repositories and various legal mechanisms, such as community right to know laws and freedom of information laws, to gather valuable data to inform our design. In this talk, we explain this exciting component of our team’s interdisciplinary approach to understanding the context for which our device was intended, why we adopted this approach, and some things we learned in the process. Most importantly, we describe how others can identify and navigate these sorts of tools to help guide their own work and to benefit synthetic biology more broadly.https://static.igem.org/peertube/streaming-playlists/hls/e201a7a5-2142-4297-acce-125f7fab6dae/0c929d6a-8d06-429e-90a8-71039a3fb02b-master.m3u8https://video.igem.org/videos/embed/tUFjRUERfkKczK3drAP9q7110022024-12-04T15:08:39.227ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ey4juR7mv3uW43Zz4PnxE1https://video.igem.org/lazy-static/thumbnails/94abbb8c-6005-44a5-9051-aa140e674f02.jpgBioMoon: a microbial biostimulant to grow plants on the MoonWe, the BioMoon team, have addressed one of the major issues for long-duration space travel: sustainable food supply. We have developed a biostimulant based on an engineered bacterium Pseudomonas Fluorescens that uses in situ resources to support plant growth directly on lunar soil. As a substrate for growing bacteria, we chose creatinine, a molecule present in human urine. We identified genes to metabolize creatinine, creA and crnA, and created a new strain that was able to grow on creatinine as the sole carbon and nitrogen source. The new pathway was implemented in silico into a genome-wide model of P. fluorescens that helped us predict metabolic fluxes. Moreover, we demonstrated that our engineered strain survived and could promote growth of a model plant in the laboratory on a lunar soil simulant. Capitalizing on these results, we built an entrepreneurship strategy to commercialize our biostimulant for space and terrestrial agriculture.https://static.igem.org/peertube/streaming-playlists/hls/6dc0a609-2387-46bb-bdcd-3b19a42058d0/35197310-835b-4926-a287-153881a1ccc6-master.m3u8https://video.igem.org/videos/embed/ey4juR7mv3uW43Zz4PnxE15620222024-12-04T16:36:37.250ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bMoGmk15AGV2cpaN9oVP8qhttps://video.igem.org/lazy-static/thumbnails/37ac2b9c-0255-46e8-815a-a4bc98c8d957.jpgScience Accessibility: Why Do it and How to Achieve itMaking science accessible is not only a matter of social responsibility and empathy, but it is also about embracing diversity as a fundamental element of the scientific process, incorporating curious people with new ideas to tackle problems. In this talk, we aim to communicate the importance of why making science accessible and understandable to everyone is essential. The talk will highlight groups often not considered when sharing scientific information to the public and demonstrate ways in which this can be achieved. This includes individuals with physical and mental disabilities, neurodivergent individuals, minorities, and individuals facing financial and language barriers.https://static.igem.org/peertube/streaming-playlists/hls/5751d7cc-eca9-42e1-9533-749c79c400f2/5e033f96-0cd9-45ef-9446-fa6a9908b4fb-master.m3u8https://video.igem.org/videos/embed/bMoGmk15AGV2cpaN9oVP8q5750122024-12-03T08:15:20.679ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/eESjrRBYNjfU49J5GHV7a4https://video.igem.org/lazy-static/thumbnails/1c97a7c0-1c8e-4331-a385-ad3545bc289b.jpgCBDynamics: Optimization of the Synthetic Production of CannabidiolIn recent years, cannabidiol (CBD) has gained significant recognition in the medical field as a key component as an adjuvant in treatments for various conditions, including psychotherapeutic therapies. However, in Brazil, the cultivation and commercialization of Cannabis sativa, the plant source of CBD, face strict legal restrictions. This project proposes an alternative method to produce CBD using synthetic biology, bypassing the need for the plant. The plan involves synthesizing cannabidiol through recombinant gene technology in Saccharomyces cerevisiae (yeast), which will express cannabidiolic acid (CBDA), a precursor of CBD. The process utilizes two metabolic pathways: the geranyl diphosphate (GPP) pathway and the olivetolic acid pathway. These precursors are combined in enzymatic reactions to form cannabigerolic acid, which is then converted into CBDA. The CBDA can be purified and transformed into CBD, offering a more efficient production method without the legal complications of Cannabis cultivation.https://static.igem.org/peertube/streaming-playlists/hls/6eb4134f-41aa-4f15-9fb0-a416c6bd1bbd/7df30d9c-9cb3-4b00-a8d2-94573344e3d4-master.m3u8https://video.igem.org/videos/embed/eESjrRBYNjfU49J5GHV7a45810182024-12-04T16:36:43.976ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bRpsGL69WTXQCFwEMdsVuvhttps://video.igem.org/lazy-static/thumbnails/e0d8a893-5b47-47db-a3bd-3527bdab3d7e.jpgHydroMelBlack fungi which appeared in the wastewater from Chernobyl suggests that melanin may possess radioprotective properties within microbial organisms. In daily lives, radiation comes from sources such as ultraviolet rays, electronic products, medical radiation procedures, and even nuclear wastewater. Furthermore, radiation in space exploration is undoubtedly set to become a key topic of focus in the future. To search for methods of radiation protection, we are planning to employ the tools of synthetic biology to identify effective strategies for radiation defense. We have constructed different strains of microbial organisms to find best solution to produce melanin and have tested their ability of radiation resistance. Also, we are working on hydrogel material which supports microalgal-bacterial co-culture. Our goal is to offer new perspectives and solutions to tackle the challenges of radiation. We firmly believe that through persistent endeavors, we can ensure the safety and success of humanity’s journey through the cosmos.https://static.igem.org/peertube/streaming-playlists/hls/57e14a10-3f75-49c5-97c9-7922596cd059/e70ae143-1ee6-41e3-814c-8b97a86518f7-master.m3u8https://video.igem.org/videos/embed/bRpsGL69WTXQCFwEMdsVuv568062024-12-04T16:45:57.303ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jcjbrt1gYAbkW3p1JwdQpFhttps://video.igem.org/lazy-static/thumbnails/811320f7-031e-4985-b7db-980e07d01124.jpgBio Si-mentThe USAFA iGEM 2024 team is focused on optimizing biosilicification by expressing the INP-silicatein-α gene in E. coli to address global and local environmental challenges, such as CO2 production in the cement industry, desertification, and agricultural topsoil degradation. Our efforts are divided into three key areas: dust mitigation, plant growth in biosilicified soil, and cement brick formation. We verified that SiO2 formation is catalyzed by our new part. We were able to eliminate the use of urea in biocementation and our biosilicification produced less ammonium than microbially induced calcite precipitation while allowing plant germination in biocemented soil. Throughout the project, our team engaged with the community by participating in local science events, consulting with farmers, and receiving insights from a rotorcraft mechanic. Our work has contributed valuable research to genetic engineering and sustainable development.https://static.igem.org/peertube/streaming-playlists/hls/9358e193-e497-473a-b6d8-bb89c386359d/bd72f860-0ad3-44c3-aa77-14f35c894602-master.m3u8https://video.igem.org/videos/embed/jcjbrt1gYAbkW3p1JwdQpF584032024-12-03T08:15:32.657ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/f5w5ZApKvwuJKfGnPraMXKhttps://video.igem.org/lazy-static/thumbnails/da36263d-1866-41da-bc15-a783130f6fbe.jpgUnveiling the Roots of Research: Introducing Historical Perspectives to iGEMWhere does the previous research we are building on come from? Under which conditions was the knowledge gained? These questions are very important if you want to work transparently as a researcher and scientist. But yet it is hard to get information, if you do not know where and how to get those. Tarakate from Marburg wants to change this. We want to introduce historical working in the iGEM community. During our project we realized that it is important to emphasize the background of past research, scientist, and research conditions. We had the chance to talk to multiple experts from a variety of fields and reflected and developed our project with them. This interdisciplinary work enriched our iGEM experience enormously. Thus, we would like to share for others to incorporate for their further research what we have learned during the iGEM season and through working interdisciplinary.https://static.igem.org/peertube/streaming-playlists/hls/72017520-a0e1-4d90-bc63-91da918c818d/66c001d3-715b-4749-a82b-41a8d405dcf9-master.m3u8https://video.igem.org/videos/embed/f5w5ZApKvwuJKfGnPraMXK5590232024-12-04T15:36:32.098ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/g5d3N9yy8fn5aMagjyJoN4https://video.igem.org/lazy-static/thumbnails/e8a274f3-04c0-4be4-920f-bb5f6283d2ed.jpgPrymDetect: Can SHERLOCK outsmart the Golden Algae?Prymnesium parvum – the so-called “golden algae” – is the algal species responsible for the 2022 ecological disaster in the Oder River in Poland. Despite the serious threat posed by the organism, the methods widely used in its detection are time-consuming, tedious, and ineffective. In our iGEM project, we applied a synthetic biology tool – SHERLOCK (Specific High-sensitivity Enzymatic Reporter Unlocking) in the highly specific and efficient detection of the Polish strain of Prymnesium parvum. Moreover, we created a lateral flow test – PrymFlow – for in-field detection as well as a 3D-printed chip. Altogether, our research seeks to not only make the monitoring of regions susceptible to Prymnesium parvum blooms easier and more efficient, but also to mitigate their ecological and economic impact.https://static.igem.org/peertube/streaming-playlists/hls/7a0f7add-d577-4aaa-8e8b-49ba72a98897/117ff3b2-b45a-4f73-9c4a-cba34f1f042d-master.m3u8https://video.igem.org/videos/embed/g5d3N9yy8fn5aMagjyJoN45720632024-12-03T08:15:50.958ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/2GKX3SmyUSZ25ZQ3UoDnDvhttps://video.igem.org/lazy-static/thumbnails/26437850-86d2-4b1e-b7fa-bc797e19c825.jpgiGEM Startup Showcase - Part IIIThe iGEM Startup Showcase - Part III will feature an overview of the iGEM Startups Program and highlight the Award Winners and Finalists of this years Startup Showcase. Don't miss out!https://static.igem.org/peertube/streaming-playlists/hls/0dc9f95c-d4b7-4516-ac28-8d4afd4e399b/7ce484a0-e4d7-44e0-a4ac-b6d944a533fa-master.m3u8https://video.igem.org/videos/embed/2GKX3SmyUSZ25ZQ3UoDnDv14080122024-12-03T23:30:56.039ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/nWyJ1nRJ2w6puvxNcHfR4Rhttps://video.igem.org/lazy-static/thumbnails/fe0daafa-97ab-4c3b-809f-7bdc93ef8c25.jpgProgRAM: Unlocking the Future with Programmable RNA-Access MemoryDo you want to revolutionise the field of synthetic biology? Then come and see the iGEM Munich 2024 team's project! You will be introduced to RNA-based molecular recording, learn about the ORF-based readout system and of course hear about the team's journey in developing the perfect tool for reading the current state of your cells - just wait to see the ProgRAM!https://static.igem.org/peertube/streaming-playlists/hls/b1ae3e12-dd44-4205-889a-2face56b5663/d04597a2-9d8b-4990-bd79-f05f3c6dfe29-master.m3u8https://video.igem.org/videos/embed/nWyJ1nRJ2w6puvxNcHfR4R565092024-12-03T08:16:03.182ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/c4adTGvUUZcHu7CD2tMAgXhttps://video.igem.org/lazy-static/thumbnails/88de957f-d44c-4d96-bd40-211913b6e0b8.jpgSaPh:IRES (Satellite Phage: Integrated Real-world Engineering Solutions)As synthetic biology advances from the lab to real-world environments, it is in need of novel parts, circuits, and devices that increase levels of control in unpredictable, complex conditions. Satellite phages present a vast ensemble of unexplored machinery with the potential to meet these emerging needs. Our project, SaPh:IRES (Satellite Phage: Integrated Real-world Engineering Solutions), addresses the significant foundational gap by pursuing two key objectives: developing novel identification tools for satellites both bioinformatically and experimentally, and utilizing their unique mechanisms to address specific challenges in synthetic biology. To do so, we use different phage satellite systems in mycobacteria and E. coli for three specific applications: sequence-specific population level control, overcoming prophage immunity, and increasing phage host range. We test our concepts in silico with the first of its kind mathematical model, in vitro, and in situ in simulated real-world environments to showcase their functionality at different levels of complexity.https://static.igem.org/peertube/streaming-playlists/hls/598570a3-5877-4a59-b278-ab2564945cfd/a13d1c87-effb-4568-a53d-eef85e90cda1-master.m3u8https://video.igem.org/videos/embed/c4adTGvUUZcHu7CD2tMAgX6040342024-12-03T08:16:03.538ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/snfZ3mWqeXjQ77ZJpxvvE4https://video.igem.org/lazy-static/thumbnails/eee96300-7c9c-402c-bc57-1c597b2c231e.jpgToward the COSMIC Dream: Space ‘Tai Chi’Humans have a growing desire for space exploration. For astronauts, there are still some tricky problems, such as circadian rhythm disorder and circulatory disorder. iGEM Tianjin 2024 created ‘Space Tai Chi’，which was inspired by Chinese traditional culture. We constructed two plasmids and transformed them into one yeast, aiming at providing melatonin and crocetin for astronauts. We designed a blue light-galactose dual-factor orthogonal system to regulate the synthesis process. On the one hand, melatonin synthesis is controlled by optogenetics. Utilize blue light to induce photosensitive protein to activate the enhancer, thereby promoting the expression of melatonin synthesis gene. On the other hand, when exogenous galactose is added，it will induce the expression of crocetin synthsis gene. We also constructed fusion proteins through EBD to reduce leakage in the system. In the future, life support system based on synbiomanufacturing will escort human exploration of the cosmic world！https://static.igem.org/peertube/streaming-playlists/hls/d585754d-9949-48eb-a231-46476067a18b/20ac2728-8636-43e2-83d3-8cfaaaff95b7-master.m3u8https://video.igem.org/videos/embed/snfZ3mWqeXjQ77ZJpxvvE4562082024-12-03T08:16:09.477ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bHKUYiiC3szmsUFphTvFmuhttps://video.igem.org/lazy-static/thumbnails/9e3cd8cd-d446-4008-8a88-ecce1f868602.jpgTroubleshooting and Careful Planning of an iGEM projectOur Troubleshooting and Careful Planning live stage talk will cover our experience this summer as new researchers learning the importance of effective troubleshooting and experimental planning. We encountered numerous challenges in the development of our project that we believe future teams could learn from. The talk will cover using parts from the iGEM distribution kit and the importance of being knowledgeable on the individual parts being used. We will also share our team’s experience with experimental planning in our project and how it could have been improved to get the most out of our experiments. We will also discuss the crucial role of dry lab in experimental planning and how to approach its integration into wet lab to make the most of both project areas.https://static.igem.org/peertube/streaming-playlists/hls/56cff195-f9f3-4595-bff5-282cb5af0918/44bd96fa-f9db-4ecb-8905-a37e1a6140d5-master.m3u8https://video.igem.org/videos/embed/bHKUYiiC3szmsUFphTvFmu4560142024-12-04T16:36:54.244ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/13bbWnMEk6Ej4bUSTtZmZWhttps://video.igem.org/lazy-static/thumbnails/2869ae1f-b756-41e3-b214-55521613cf67.jpgThe Affordable Library-based Pipeline for Accelerated Creation of single-domain Antibodies (A.L.P...Nanobodies are powerful tools because of their advantages over conventional antibodies, but their potential remains untapped due to lengthy and expensive development processes that employ animal immunisation and inefficient screening techniques. Addressing this, iGEM Leiden is introducing an efficient and animal-free pipeline for the development of nanobodies: ALPACA. This novel approach uses yeast surface display of bispecific nanobodies to screen a synthetic nanobody library for binders to an antigen-of-choice. ALPACA assesses the antigen-binding abilities of library nanobodies based on steric hindrance between the binding of the antigen to library nanobodies, and GFP to GFP-binding nanobodies. Desired antigen-binding yeast cells with reduced green fluorescence are collected through fluorescence-activated cell sorting (FACS). DNA of antigen-binding nanobodies is then easily retrieved for further development and production. Our ALPACA system supports the widespread implementation of nanobodies, removing large obstacles in their development, and foregoing the need for animal testing entirely.https://static.igem.org/peertube/streaming-playlists/hls/004dc437-a65d-4674-99fc-400d524d30e8/5caeff9f-e93f-4355-a87e-f76580746926-master.m3u8https://video.igem.org/videos/embed/13bbWnMEk6Ej4bUSTtZmZW523082024-12-04T16:45:18.441ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/baSgXZmuac7SAJXRymbGEmhttps://video.igem.org/lazy-static/thumbnails/689db321-f439-44ed-802e-6292dffea4f5.jpgMycoMiners RemediationsIn a country built largely on resource extraction, mining continues to shape Canada’s landscapes and its people. Unfortunately, the impacts of mining cannot be ignored. Mine effluent – water originating from mine sites negatively impacts ecosystems and the communities living along contaminated waterways. Treating mining effluent is critical to maintain sustainable mining practices, conventional systems are often expensive and ineffective in reaching the small concentrations of contaminants required. We aim to sequester heavy metals from mining wastewater using a microbial process. A major problem with current mining practices is that they create highly acid environments that many organisms cannot tolerate. To create a bioremediation vector, we need to address the highly acidic environment that allows our microbe to be used in situ. While our initial goal is heavy metal sequestration, we are considering possible future methods for recovery of metals for circularity in the mining industry.https://static.igem.org/peertube/streaming-playlists/hls/525c1052-ba44-40a1-9a27-6ef75005eee0/44a38644-a552-4e74-a489-7878d1c3db75-master.m3u8https://video.igem.org/videos/embed/baSgXZmuac7SAJXRymbGEm579002024-12-04T16:37:15.132ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/r8tU4k4tAuiBYzhjZ6QrJrhttps://video.igem.org/lazy-static/thumbnails/d40d4c21-c965-4c42-a5f0-23911d6b3101.jpgPullulanElite, a synthetic platform for high-molecular-weight pullulan productionAureobosidium melonogenum Pl6 is on unconventionol yeost. In ourexperiment, we adopted o method to increose the moleculor weight ofpullulon produced by Aureobosidium melonogenum Pi6 ond further improvethe yield. We look forword to our production method ond engineering yeostshining in the future production of pullulon, providing higher quality pullulonfor the public and society. In oddition, we hove developed on engineeringyeost screening mechonism bosed on phosphofructokinose deficiencywhich greotly mointoins screening pressure, reduces contominotion ofontibiotics ond ontibiotic resistonce genes torgeting eukoryotes, ond sovescosts. Besides,ofter onolysis, this screening mechonism con be opplied todifferent fungol microbiol engineering, especiolly in yeost, ond hos broodopplicotion prospects, It also provides useful ideos for the subsequent iGEM team.https://static.igem.org/peertube/streaming-playlists/hls/cb7fdd88-41a3-4028-9dcb-943256f4a911/87dbecb8-b1db-48a1-a778-08f13cb6e2d4-master.m3u8https://video.igem.org/videos/embed/r8tU4k4tAuiBYzhjZ6QrJr639022024-12-03T08:16:32.483ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rBywMuc4M7QvTB7cWNi5sEhttps://video.igem.org/lazy-static/thumbnails/d962fff6-a1e1-4b07-becd-85be87da7e5a.jpgThe SOLAR App - The Importance of Effective Science CommunicationThe SOLAR team has recognized early on in their iGEM-journey how vital well-executed science communication is for the success of a project. Working on a project that leans into environmentalism, it is important to us to educate everyone - scientists or not - about the issues we tackle with our project, and why it is important to do so. Collectively, our wet-lab-, dry-lab- and human-practices-teams have developed the SOLAR app. It aims to educate people on the impact of UV-filters on the marine ecosystem, as well as demonstrate the importance of using UV-protection regularly and responsibly. Additionally, it is a space to educate users about the iGEM competition and synthetic biology. In our talk, we want to show you the app with all its possibilities and applications. We hope to inspire future teams to make use of effective tools for communicating science and their projects.https://static.igem.org/peertube/streaming-playlists/hls/cf6b8bd6-afca-41b2-a939-63c8718408a2/370aea8b-dad6-4349-bc1a-921d9f1c454d-master.m3u8https://video.igem.org/videos/embed/rBywMuc4M7QvTB7cWNi5sE5740142024-12-03T08:16:48.540ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/wkxZZKJFBiMJ2gcnTrCro4https://video.igem.org/lazy-static/thumbnails/3e7d4f02-a5bd-472a-b0da-6e0c7272bcfd.jpgBroccoli Master :Sustainable de novo synthesis of sulforaphane in Saccharomyces cerevisiaeCancer is a major health issue, and chemotherapy, while a primary treatment, often has severe side effects and limited effectiveness. Sulforaphane, an isothiocyanate found in cruciferous vegetables like broccoli seeds, has strong anti-cancer properties with minimal side effects. However, its production from plants leads to land waste, high costs, and unsustainable practices. We aim to synthesize sulforaphane de novo in Saccharomyces cerevisiae and use computational and synthetic biology to enhance its yield. This approach will reduce costs, land waste, and deforestation, offering a sustainable alternative that supports global climate change efforts and improves human health.https://static.igem.org/peertube/streaming-playlists/hls/f5ad0318-05d5-4797-82c7-62d06a5b1053/de8f46e0-91c4-420a-9b7f-c912df60fb28-master.m3u8https://video.igem.org/videos/embed/wkxZZKJFBiMJ2gcnTrCro46560112024-12-03T08:16:48.557ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/dvci9fFbRq48rg6armQX59https://video.igem.org/lazy-static/thumbnails/fae4030f-874c-495f-bff6-f53556deb904.jpgScaling Ursolic Acid Biosynthesis for Breast Cancer Treatment via Gene Knockout and CSTRUrsolic Acid (UA) is a natural product that has been discovered to have numerous medically beneficial properties. Preliminary studies have shown therapeutic potential for breast cancer [Seo et al., 2018]. The current method of obtaining UA requires extraction from apples and loquats, which is environmentally unsustainable [Yu et al., 2018], time-consuming, and not standardized across scientists. Although UA has high promise within oncology studies, it’s also found to have low oral bioavailability, limiting its efficacy as a pharmaceutical. Team Cornell genetically engineered the mevalonate (MVA) pathway by knocking out a transport protein and introducing new enzymes within the MVA pathway. Furthermore, a high specificity carrier system was developed to assist with bioavailability. Oncurex improves the efficiency and standardization of UA biosynthesis. This project also provides an industrially scalable platform that can be utilized by pharmaceutical companies to increase UA supply for breast cancer treatment.https://static.igem.org/peertube/streaming-playlists/hls/654131c3-2780-49d4-bcb2-6291979396cc/08a72dcb-c919-48c1-9a82-0d3aa47b1d50-master.m3u8https://video.igem.org/videos/embed/dvci9fFbRq48rg6armQX596020272024-12-04T16:55:11.664ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jppAgkLgANHVQH2UMYYkSvhttps://video.igem.org/lazy-static/thumbnails/8b2e2e4f-f04d-418e-8294-264f11055ec6.jpgEvolving T7 RNA PolymeraseThe focus on mRNA technology has heightened due to its recent applications in vaccines for COVID-19 and other diseases. Our project aims to further evolve T7 RNA polymerase, a critical enzyme involved in this production. In our project, we developed a robust reporter system, aimed at evaluating the wild-type T7RNAP and the ancestral sequences generated. Through the iGEM engineering cycle and our engineering success, we were also able to refine the expression of T7RNAP to stable levels through the addition of regulatory elements such as antisense oligonucleotides to knockdown the expression of T7 RNAP. With this compatible expression and reporter system, our project aims to generate a diverse library of RNAP variants using different methods such as site-directed mutagenesis, ancestral reconstruction, and random mutagenesis. These variants will then be screened using our reporter system to identify for better-performing variants.https://static.igem.org/peertube/streaming-playlists/hls/95092413-1ca3-47c9-a582-5c765fe85afd/a90b6f09-9a0b-4862-b9a0-98ec31e66f72-master.m3u8https://video.igem.org/videos/embed/jppAgkLgANHVQH2UMYYkSv599072024-12-03T08:16:55.094ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/6JBCHvHFSqjZA1iA4JGnA9https://video.igem.org/lazy-static/thumbnails/70438825-2e04-4142-8d0a-44652d569831.jpgMycoBite: Integrated Enzyme Engineering and Molecular Modeling for Polyethylene Degradation Using...Polyethylene related plastic pollution is a serious environmental problem in Ohio, where just 2% of plastic waste is recycled. A potential solution is mycoremediation, which makes use of fungi's capacity for substrate degradation. The laccase enzyme of Pleurotus ostreatus, which has the ability to degrade polyethylene polymers, is the main focus of the MycoBite project. Our objective was to enhance the thermal stability and affinity of laccase on PE surfaces by utilizing a combined computational method that included protein engineering and enzymatic and molecular modeling. We suggest using Saccharomyces cerevisiae to express the optimized laccase, promoting increased enzyme activity while supporting creative approaches to the management of plastic waste and environmental sustainability. MycoBite hopes to offer a novel solution to PE bioremediation and contribute to sustainable waste management practices.https://static.igem.org/peertube/streaming-playlists/hls/2e70e42a-9629-4fb7-9d51-661e938f2670/9c6a0ca9-5bfc-4b9d-98fd-77afee9a660e-master.m3u8https://video.igem.org/videos/embed/6JBCHvHFSqjZA1iA4JGnA9599022024-12-03T08:16:58.718ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/cqDVdRaK1KMwWVoB5KE5N5https://video.igem.org/lazy-static/thumbnails/8e44bd4b-5d69-4841-a1d5-939acf7328d9.jpgThe Biodegradable Bioplastic From The World of Tomorrow: An Answer to Harmful Petroleum PlasticsThe current world is plagued by modern microplastics. From wrecking our ecosystems to wrecking the health of organisms across the globe. These non-degradable microplastics not only cause serious risks to our biomes, but also to our own personal health. This goes even without mentioning the amount of carbon-based emissions are spent using oil for the creation of our modern plastics. What if there was a way to ensure we as humans could create a plastic that was both climate-friendly and biodegradable? Introducing: our PHB-based biodegradable bioplastic! The PHB lipid is created through a culture of modified C. reinhardtii and E. coli so it is both eco-friendly and oil-free. This PHB is the precursor to a bioplastic that could be created commercially worldwide, creating an impact globally. Fully biodegradable, this plastic can solve many of the burgeoning issues of modern plastics and can change the world if implemented!https://static.igem.org/peertube/streaming-playlists/hls/5c85be48-d30a-42e8-8c35-538442d56be0/d92ca447-4104-4240-b78d-505ab8e549d8-master.m3u8https://video.igem.org/videos/embed/cqDVdRaK1KMwWVoB5KE5N5546052024-12-03T08:17:05.057ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/16waR42xjQqLMsASbqSqLwhttps://video.igem.org/lazy-static/thumbnails/4164bec6-0b07-426f-87e0-e3f981ce9c88.jpgNOsquito - The Green Way to Keep Mosquitos AwayThe transmission of mosquito-borne diseases causes many deaths worldwide. Regions around the equator are particularly affected and are expanding due to climate change. Preventive measures, such as mosquito repellents, are the most effective way to reduce the incidence of mosquito-borne diseases. DEET is the gold standard of mosquito repellents. However, its current production relies on halogenated, petroleum-based intermediates that pose a threat to the environment and health, and it remains difficult to access in malaria-endemic regions. We focus on NBP, an analog of DEET. With a newly designed biosynthetic pathway in Corynebacterium glutamicum, we enable the sustainable and cost-effective production of NBP worldwide. Supported by AI-based predictions, we create new chimeras with increased performance. Since fermentation processes are tied to biotechnologically advanced regions, we enable decentralized production in black pepper. To make this possible, we develop a transformation protocol for black pepper that lays the foundation for plant-based NBP production.https://static.igem.org/peertube/streaming-playlists/hls/00c54fc6-6ca0-40cc-bc51-b7a084bbcc86/cc0d21c0-3034-493a-bffa-47b3f366dbc3-master.m3u8https://video.igem.org/videos/embed/16waR42xjQqLMsASbqSqLw656072024-12-04T17:05:18.722ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/14V6nc88VnPmYgncCL4kYKhttps://video.igem.org/lazy-static/thumbnails/1d72c006-4fcb-4669-afd9-65ec1f99205f.jpgLimnospira-inspired Foundational Technologies (LIFT)The 2024 UCSC iGEM project, LiFT (Limnospira-inspired Foundational Technologies), aims to advance cyanobacteria engineering using new technology we call "accelerators." Limnospira fusiformis (SAG 85.79) is a promising chassis for developing nutrient-rich, cost-effective infant formula, addressing global malnutrition and high formula costs. While initially focused on creating a genetic system in L. fusiformis, Synechococcus sp. (UTEX 3154) was chosen for its well-characterized bio-engineering pathways. To overcome the lengthy transformation processes caused by polyploidy and restriction-modification systems, we remove restriction sites using statistical testing. Modular cloning is employed to build accelerator plasmids, including Cas12a and Argonaute, to speed up genetic recombination. Our project involves three accelerator designs: Cas12a single plasmid, Cas12a double plasmid, and Argonaute double plasmid. The UCSC iGEM team aims to apply this research to L. fusiformis in the future, creating a foundation for efficient cyanobacteria engineering.https://static.igem.org/peertube/streaming-playlists/hls/008bf363-04cd-4f35-b81e-3417e868d67f/9b3c6bb5-3d71-4630-b0f0-520e1028eaed-master.m3u8https://video.igem.org/videos/embed/14V6nc88VnPmYgncCL4kYK630052024-12-03T08:17:16.850ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/86iG9DyoJwXbd6rR4ZV65Yhttps://video.igem.org/lazy-static/thumbnails/803ca783-b379-4cc0-9cd9-e763bd65ea35.jpgInnovating with Empathy: Elevating iGEM Through Human PracticesThis talk will focus on the area of human practices, and emphasizing it's importance to having meaningful iGEM projects. We will review our team's work in human practices, which has been commended in previous years by judges for being exemplary for other teams. We will focus on the idea of local students solving local problems, and how we can meaningfully engage with our communities and practice critical reflexivity to thrive in scientific fields.https://static.igem.org/peertube/streaming-playlists/hls/396d97ba-a0be-4336-9655-4dbdc213ac4c/0a7fb7c3-c33a-4df4-a99d-5809737a2e83-master.m3u8https://video.igem.org/videos/embed/86iG9DyoJwXbd6rR4ZV65Y6110132024-12-03T08:17:22.183ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gytLXZXGTRcyqYK11nJHJJhttps://video.igem.org/lazy-static/thumbnails/22cd8b45-6e87-4a6a-9cc9-ac27fb79c6e9.jpgPLA to Power: Successes and ChallengesDiscussion regarding the challenging aspects of our project and how and in what areas we have been successful.https://static.igem.org/peertube/streaming-playlists/hls/7e01ff66-6ac5-4331-b0d6-cd4bdb9754d2/27e3ad23-2abd-4d44-87b8-508bc62f2139-master.m3u8https://video.igem.org/videos/embed/gytLXZXGTRcyqYK11nJHJJ512002024-12-03T08:17:45.026ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/8ze8VCuVcTczPXGHwK9ixvhttps://video.igem.org/lazy-static/thumbnails/0f20430b-5afa-49d5-95c1-f65ae02fe414.jpgVersaTobaccoThe high chlorogenic acid accumulation in Nicotiana benthamiana limits its potential for synthesizing other products. To develop tobacco as a versatile chassis for the short-term, efficient synthesis of desired plant natural products, we first constructed a genome-scale metabolic model (GSMM) and used COBRA algorithms to formulate the best metabolic flow adjustment strategies. Subsequently, the critical gene NbHQTs for chlorogenic acid synthesis in tobacco was knocked out using CRISPR/Cas9, and a low chlorogenic acid level tobacco chassis was obtained. We then introduced heterologous synthetic pathways for phaselic acid, resveratrol, and crocin into the chassis and improved the synthesis capability by engineered critical enzymes. The chassis could quickly synthesize the desired functional products to fulfill different requirements and is expected to be developed into an efficient biological reactor for the biopharmaceutical industry, thereby promoting the green transformation and upgrading of the traditional tobacco cultivation industry.https://static.igem.org/peertube/streaming-playlists/hls/3d539c5b-3822-440a-a11b-74ce67f7ff77/5bcc19a5-ff2e-401d-9623-823e6be2c7d3-master.m3u8https://video.igem.org/videos/embed/8ze8VCuVcTczPXGHwK9ixv5000142024-12-03T08:17:45.070ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jxnBK3PWyyCndCA5Qv4NNmhttps://video.igem.org/lazy-static/thumbnails/13ced5c6-73d2-4de5-842c-7cfb92c736af.jpgcosmobiome - a CO-culture with Silicon MObilization for BIOmanufacturing using Martian rEgolithOne of the grand challenges in space synthetic biology is in situ resource utilization (ISRU). This eliminates the need to transport materials from Earth, which can be expensive and cumbersome. Another challenge is the manufacture of valuable compounds, like platform chemicals and pharmaceuticals, in space. We present a novel co-culture system of silicon-solubilizing bacteria (Pseudomonas fluorescens) and diatoms (Phaeodactylum tricornutum) that can use the silica present in Martian soil to drive their growth and produce compounds of human interest. As a proof-of-concept, we have engineered our bacterium to produce 4(S)-limonene. We also present Astrolabe, a first-of-its-kind software for applications in space synthetic biology and biomanufacturing.https://static.igem.org/peertube/streaming-playlists/hls/9625dfcd-d013-4295-aa90-4de970afac40/618abe2b-2104-4df9-ad86-d86ed92e1eda-master.m3u8https://video.igem.org/videos/embed/jxnBK3PWyyCndCA5Qv4NNm6740172024-12-04T19:30:38.941ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3oEmSSun6JaP46e9obwNULhttps://video.igem.org/lazy-static/thumbnails/0d2a9d52-e705-4d68-ab4f-a30349785184.jpgBluebear Bio - Making Cell-Free Expression Systems AccessibleCell-free transcription and translation (TXTL) is a powerful tool that enables biomolecule production directly from DNA, bypassing the need for living cells. This allows for faster prototyping and production. Our project builds on recent TXTL advancements by using a genetically modified E. coli BL21(DE3) autolysate strain, featuring tardigrade protein genes CAHS 107838, CAHS 106094, and CAHS 94063. These proteins enhance lysate stability at higher temperatures, eliminating the need for costly cryogenic storage. Additionally, we optimized the energy buffer to lower costs, making expensive equipment unnecessary. This opens up TXTL technology to broader use, especially in resource-limited settings. Our improved system is also ideal for educational purposes, as it reduces the financial burden of maintaining specialized lab infrastructure. These advancements make cell-free systems more affordable and accessible, driving further innovation in synthetic biology across academic, industrial, and low-resource environments.https://static.igem.org/peertube/streaming-playlists/hls/135c47c9-8806-4289-b711-522e478908fc/e84fe73e-bb4d-4348-8dd9-ac87034847ac-master.m3u8https://video.igem.org/videos/embed/3oEmSSun6JaP46e9obwNUL381082024-12-03T08:17:51.025ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/waLzKBFB6UGqtRNQ8bA6pAhttps://video.igem.org/lazy-static/thumbnails/98399ca7-36c5-4069-9ef2-15f646b0dfa1.jpgIn-Vivo Biosynthesis of Peptide-Based Therapeutics (GLP1 Agonists) through Nicotiana benthamianaPhytogene aims to provide an affordable and sustainable alternative for synthesizing pharmaceutically and commercially relevant peptides through plant-based production (i.e. biopharming). Specifically, this project focuses on the transient heterologous production of GLP-1R agonists in Nicotiana benthamiana. Our platform consists of three key steps: cloning, plant expression, and purification. Cloning involved the design of plasmids for easy gene insertion and integration (1), plant expression was achieved through Agrobacterium-mediated transformation (2), and purification was completed through the harvesting of leaf crude lysates, followed by affinity chromatography (3). Finally, SOLIDWORKS, a computed-aided design tool, was used to design and simulate a scaled version of the agroinfiltration vacuum chamber. Through the use of an integrative design process, and by making improvements based on finite element analysis (FEA) results, Phytogene can prove its commitment to making biopharming more accessible, providing a scalable and cost-effective solution for peptide synthesis in the synthetic biology community worldwide.https://static.igem.org/peertube/streaming-playlists/hls/f44f540c-d3ae-4800-8913-82f8bf5c785c/be2c6aa3-3722-4b81-b99e-ff4d713717aa-master.m3u8https://video.igem.org/videos/embed/waLzKBFB6UGqtRNQ8bA6pA5370152024-12-04T16:41:43.131ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/2YEzSrZ5hCzoxEzQiB3vzEhttps://video.igem.org/lazy-static/thumbnails/b2133fff-3922-4d3c-b032-70de03b56e33.jpgResiSense - A rapid point-of-care test kit for detecting bacterial antibiotic resistance genesBacterial antibiotic resistance, exacerbated by antibiotic misuse and overuse, has become a global health crisis responsible for millions of deaths, particularly in underdeveloped areas. However, current diagnostic strategies require highly-trained personnel and expensive on-site equipment, which are often infeasible in low-resource settings. To help alleviate these challenges, we propose ResiSense, a cell-free point-of-care strategy tailored to rapidly detect bacterial antibiotic resistance genes. In the presence of a targeted resistance gene, a selected G-quadruplex DNAzyme will be produced from a strategically designed DNA template by rolling circle amplification (RCA). The DNAzyme oxidises colourless tetramethylbenzidine (TMB) into blue TMB⁺, resulting in colourimetric detection. As a proof of concept, we generated a non-infectious Escherichia coli strain containing a short snippet of blaKPC2, an antibiotic resistance gene derived from Klebsiella pneumoniae, and we successfully detected the gene via the RCA-generated DNAzyme. ResiSense represents a rapid and economical technology that could accurately detect antibiotic resistance.https://static.igem.org/peertube/streaming-playlists/hls/10029167-e22c-4255-b312-a68be8fa8454/579afda1-760a-4580-bbb0-b443ba7004e2-master.m3u8https://video.igem.org/videos/embed/2YEzSrZ5hCzoxEzQiB3vzE7070132024-12-04T16:59:16.929ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gtC29FDTBmCYQ7N2xKw3cXhttps://video.igem.org/lazy-static/thumbnails/35c945b2-932a-4212-a011-f914c532e24a.jpgSYNHESION - natural bacterial adhesivesOur global consumption of adhesives will reach 24.7 million tons, but most are made from toxic, non-biodegradable chemicals. Synhesion offers a solution with natural, biodegradable adhesives. We develop a recombinant manufacturing system in E. coli for the efficient and tunable production of the strongest naturally found glue - holdfast. Our system is multiple-fold faster, more controllable, and predictable than the natural one. It uses cost-effective, widely accessible, and renewable feedstocks - glucose, while the strongest available chemical glue, epoxy resin, requires expensive oil-based chemical precursors. Additionally, we developed a new E. coli strain by eliminating competing pathways, enhancing adhesive yield. Our proteins have potential in the medical field and targeted drug delivery systems. We also developed educational tools for diverse audiences. We partnered with Universities of Third Age, launched the “MinkMitą” podcast, a mobile game “Bacteriomania”, organized the "SynFolk" event cycle, and created a children's book to inspire scientific curiosity.https://static.igem.org/peertube/streaming-playlists/hls/7d545c14-ed03-437d-8e6a-4cf4872b4cfd/f7414028-aee4-4a29-8e30-432bcb142768-master.m3u8https://video.igem.org/videos/embed/gtC29FDTBmCYQ7N2xKw3cX6210492024-12-03T08:18:05.315ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/v2SMTzFYxBgyG3qeTs9MXchttps://video.igem.org/lazy-static/thumbnails/fc1ac936-7069-4da0-a576-5e59c60674fa.jpgPrometheus: Large Language Model for Synthetic BiologyOver the past fifty years, synthetic biology has achieved significant advancements, with last year marking the 20th anniversary of iGEM. Despite these accomplishments, the complexity of components and disorganized knowledge structures have hindered its full potential. As we enter iGEM’s new decade, NJU-China's 2024 goal is to unlock synthetic biology’s potential using new tools. We utilized a knowledge graph as the foundational database architecture and leveraged a large language model to facilitate processes such as raw data cleaning, database retrieval, and natural language dialogue with users. We developed Prometheus, a professional-grade, novice-friendly synthetic biology language model. Prometheus helps users retrieve components, construct plasmids, and guide experimental design, thus promoting synthetic biology. After completing the development of Prometheus, we successfully promoted the model among a wide audience through extensive Human Practice activities, unleashing the fire of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/eb1c10eb-a979-425b-ac5e-1c12183796d5/f1b95e45-ad8b-498a-abce-9b7a1435f42d-master.m3u8https://video.igem.org/videos/embed/v2SMTzFYxBgyG3qeTs9MXc6760272024-12-04T16:43:02.712ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/7raLUkritjptkeG2i7p26ghttps://video.igem.org/lazy-static/thumbnails/35b8f099-bcf0-4d77-a027-e28619ab03c0.jpgOur journey to cultivating a Synthetic Biology communityWe will share our experience with how to get support from faculty members, overcome challenges associated with creating synthetic biology community on campus, recruit iGEM members and secure funding.https://static.igem.org/peertube/streaming-playlists/hls/341a7323-8cd4-4569-9da6-c8cedda8cf2d/7c1f44f7-e068-4fa9-9bd8-9e9bc11cdaea-master.m3u8https://video.igem.org/videos/embed/7raLUkritjptkeG2i7p26g563092024-12-04T17:05:45.587ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/epPWfUKT8vVZasNh5ZJ69zhttps://video.igem.org/lazy-static/thumbnails/ff68304e-51db-4874-a70b-ecdb262fc6a3.jpgPeptides to Innovation: Unlocking the Future of Health and Nutrition with ALEBBRIGEIn this talk, we will dive into the whole research, design, and development process behind the ALEBBRIGE project. Starting with an in-depth investigation of peptide sequences reported in the literature for various properties, we evaluated them using enzyme simulators to analyze how digestive proteases would interact with the peptides and chose the most functional sequences for our objectives. We performed in silico cloning across different plasmids and molecular docking to simulate the interactions among molecules. With the support of our sponsors, we synthesized the multipeptide sequences and conducted wet lab experiments to validate our work. Additionally, we will explore how engineered microorganisms can create groundbreaking products that can go from innovative dietary supplements or maybe personalized medical treatments in the future.https://static.igem.org/peertube/streaming-playlists/hls/6c9a7358-9af9-4709-bf8c-9959178f9445/6b52900e-eed2-49f8-846a-a430de0663bc-master.m3u8https://video.igem.org/videos/embed/epPWfUKT8vVZasNh5ZJ69z5150142024-12-03T08:18:24.993ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/aD35pecRN1Dqj3Nw5xvpHPhttps://video.igem.org/lazy-static/thumbnails/145516e7-6040-4684-9587-6930e2f61f57.jpgPICasSO: CRISPR/Cas-Mediated 3D Genome Engineering via Programmable DNA-DNA InteractionsCells interpret identical DNA sequences differently depending on the 3D genome organization, leading to diverse cellular phenotypes and even determining between health and disease. While synthetic biology provides powerful methods to engineer the genome sequence, tools to sculpt the genome's spatial architecture are lacking. We address this profound gap by introducing PICasSO, a toolbox for rationally engineering the 3D genome organization. Using different CRISPR/Cas orthologs and new, engineered fusion guide RNAs, we created "Cas staples" that bind and connect otherwise non-interacting genomic regions. To streamline the development cycle of new Cas staples, we developed DaVinci, a multi-faceted model integrating both local and long-range DNA-protein interactions into a unified pipeline. Combining PICasSO and DaVinci, we recapitulated mechanistic core principles of enhancer hijacking - a driver of tumor development. Our comprehensive part collection and extensive education program enable the next generation of iGEMers to efficiently adapt PICasSO and engineer genomes in 3D.https://static.igem.org/peertube/streaming-playlists/hls/4e0e0bf6-8651-4093-9582-9d23e7e1f62d/ac9742eb-25ff-430a-a1c6-6ba99f23e8ed-master.m3u8https://video.igem.org/videos/embed/aD35pecRN1Dqj3Nw5xvpHP58001812024-12-04T16:55:45.908ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/kM2cE9xJ2VvjbC6CDYNumwhttps://video.igem.org/lazy-static/thumbnails/759e1ea3-51da-4ff5-b554-c363cf008b33.jpgNavigating your project path to success: presenting AI-Powered iGEM Data ExplorerDeveloping an iGEM project can be overwhelming, especially when you're unsure where to begin or how to navigate the vast archives of previous team achievements. Our solution? The iGEM Data Explorer—a powerful tool designed to streamline your project development process. This application enables you to "chat" with the collective knowledge from all past iGEM team websites, making it easier than ever to find relevant examples, best practices, and key insights from previous teams. Utilizing cutting-edge NLP algorithms, the iGEM Data Explorer ensures quick and efficient data retrieval, helping you focus on what matters most: bringing your innovative ideas to life.https://static.igem.org/peertube/streaming-playlists/hls/a026d825-f6d0-43cc-85f6-975f528420e6/0b9b1fbd-7fb5-44cc-9e64-961d922296c6-master.m3u8https://video.igem.org/videos/embed/kM2cE9xJ2VvjbC6CDYNumw453082024-12-04T16:51:55.257ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/wm1i2632Ps4pgmUT9YZmGxhttps://video.igem.org/lazy-static/thumbnails/bf29a116-0ac1-4665-b614-e0f53a33490e.jpgYOB3: An Alternative for the Biotechnological Production of Plant Biostimulant SupplementsThe YOB3 system was designed by the Rio_UFRJ_BR team to produce a biostimulant, based primarily on the NAD+ precursor nicotinamide riboside (NR), to increase plant productivity and stress tolerance. Production is carried on the yeast Saccharomyces cerevisiae due to its versatility in genomic manipulation, fermentation capabilities, and environmental sustainability in producing bioproducts. YOB3 system aims to attain high productivity by combining techniques of flux balance analysis, genetic and protein synthesis manipulation, and growth in an affordable sugarcane medium, which is largely produced in Brazil. By such means, we intend to keep the NR production affordable for small to big producers and help mitigate the demand for hazardous chemicals in agriculture.https://static.igem.org/peertube/streaming-playlists/hls/f5bd374d-c12a-4227-9155-47f8a40dba27/db94e476-9f25-45d4-a17c-05805bf972b5-master.m3u8https://video.igem.org/videos/embed/wm1i2632Ps4pgmUT9YZmGx616012024-12-03T08:18:41.015ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bDTw89MKoSkAh27E7NYPS1https://video.igem.org/lazy-static/thumbnails/b792866b-5732-4649-9a65-f9b0c9737417.jpgBeyond the Bench: Bringing Entrepreneurship and Inclusivity into Our ScienceIn this talk, we’ll focus on the human practices side of our iGEM project, where we’ve worked to bring entrepreneurship and inclusivity into everything we do. We’ll share how we’ve tried to create an inclusive research environment that values different perspectives, and how this has shaped our project in meaningful ways. We’ll also talk about our journey of turning scientific ideas into practical, marketable solutions through entrepreneurship. Our goal is to encourage other teams to think about the broader impact of their work, not just in terms of science but also considering the ethical, social, and economic aspects.https://static.igem.org/peertube/streaming-playlists/hls/5645a7f1-7499-4c56-9213-bc19c03755d0/8d0c0c3d-eae0-412d-85aa-17a6cc92666e-master.m3u8https://video.igem.org/videos/embed/bDTw89MKoSkAh27E7NYPS1550052024-12-03T08:18:51.776ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rB8Z2KmovKhngfCisrjbkahttps://video.igem.org/lazy-static/thumbnails/89e6fd20-a948-46f4-95db-28d481832d9a.jpgThe AflaxOFF Approach: Enhancing Team Collaboration and EfficiencyDuring the development of AflaxOFF, we established various techniques that have helped us better understand each other, work together more harmoniously, and develop our project in an efficient and responsible manner. These methods have not only improved how we work in the lab but also how we treat one another. Drawing on psychological studies and the active participation of our team members, we would love to share our experience with other iGEM teams. We hope that by doing so, we can inspire others to manage the natural challenges of teamwork in a more effective and respectful way.https://static.igem.org/peertube/streaming-playlists/hls/cf5c6b16-ff02-4727-97ca-631c0f79339f/340aecb6-cdb1-4904-8812-2fa0244b7069-master.m3u8https://video.igem.org/videos/embed/rB8Z2KmovKhngfCisrjbka546022024-12-03T08:18:54.591ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/w5hhdtC5DyDZngjcZsCSz4https://video.igem.org/lazy-static/thumbnails/1a83342c-eff8-4df2-964c-9627ab5f80aa.jpgLearning, Adapting, and Engaging: Hydro Guardian's Educational and Human Practices in Synthetic B...This presentation dives deep into the journey of the Hydro Guardian! We'll explore the educational and human practices that shaped and refined our project. We were thrilled to engage with stakeholders through interviews, as this allowed us to gain valuable knowledge and adjust and enhance our project based on real-world needs and feedback. Our efforts in communicating the Hydro Guardian Project within the scientific community — through presentations, meetups, and collaborations with other iGEM-Teams — has fostered valuable partnerships and gained some amazing insights. Additionally, our outreach to the public through educational initiatives, such as a children's book and school visits, has been a great way to expand the understanding of our project and synthetic biology. These continuous learning cycles and adaptive approaches show just how important educational and human practices are in ensuring a responsible and impactful synthetic biology project!https://static.igem.org/peertube/streaming-playlists/hls/f38b2ae2-b316-489f-bfd9-f5fb8053c925/7c91b0c7-5734-4424-9ed9-7ac9b64795b6-master.m3u8https://video.igem.org/videos/embed/w5hhdtC5DyDZngjcZsCSz4498012024-12-03T08:19:26.159ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/873bebseQCm2T13Uks8tR3https://video.igem.org/lazy-static/thumbnails/9645806c-7700-47ae-bdaa-9883d716963e.jpgAll About Live ApplicationsWe wish to talk about different measures of live applications of bacteria or other living microbial GMO which is a major aspect of our project on developing a caring cosmetic product involving GMO. As days pass on, synthetic biology offers us magic wand to use GMO in almost every aspect of our life. Hence, just a li'l touch of safety measures and the beneficial GMO will walk in hand in hand with us! We'll explore different possible approach on this growing field.https://static.igem.org/peertube/streaming-playlists/hls/3987c642-7d6e-4fb7-a941-2d9b98677f80/76c553ca-1cf4-4dd7-b6f4-e247dbaa54d3-master.m3u8https://video.igem.org/videos/embed/873bebseQCm2T13Uks8tR35460352024-12-04T16:44:05.705ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/btxpqfZH4sFTTRmmoXcyc1https://video.igem.org/lazy-static/thumbnails/4b2f3cc3-97b4-42ed-95ad-a885f35363b8.jpgLuminiTouch - A novel mechanoluminesence biosensorInspired by bioluminescent bay, Jilin-China developed a novel mechanoluminescent hydrogel biosensor. Using luciferase-producing bacteria in sodium alginate hydrogels, the material converts pressure into electrical signals and then into light. This is a novel approach to translating pressure into light, with applications ranging from eco-friendly touchscreens to cost-effective heart rate monitors, and beyond. We believe it will advance technology and illuminate everyone's future.https://static.igem.org/peertube/streaming-playlists/hls/54d3d257-6bb1-44bd-9cb1-4f003369a2e6/42ad5df2-95d2-4357-b1c2-deb78701101e-master.m3u8https://video.igem.org/videos/embed/btxpqfZH4sFTTRmmoXcyc16080222024-12-04T17:00:09.836ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ksrkopnniNvpUzxVfGBuHKhttps://video.igem.org/lazy-static/thumbnails/2b838082-5e08-4b1b-b050-e314eb0fd52e.jpgENEducerIn recent years, initiatives like the Artemis Project have explored the potential for extraterrestrial resource acquisition and human habitation. However, due to the detrimental effects of space radiation and ultraviolet light, conventional microorganisms struggle to survive, necessitating a synthetic biology approach that is radiation-resistant. Our project addresses the critical challenge of energy production in space, proposing a solution through synthetic biology. We engineered Shewanella, an electrochemically active bacterium, by incorporating the ENEducer mechanism to not only protect it from radiation but also convert that radiation into usable energy. Additionally, a kill switch was integrated for biosafety. This system offers promising potential for developing microorganisms capable of producing valuable substances in space while converting radiation into energy, with broad applicability across various microbial species.https://static.igem.org/peertube/streaming-playlists/hls/9d8e95d9-1262-450d-9b5b-174fdbce43dd/fa9dfc49-6b0c-444f-84fe-518fe02ef975-master.m3u8https://video.igem.org/videos/embed/ksrkopnniNvpUzxVfGBuHK717072024-12-04T16:44:42.563ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ijGqHwHNHSjYg2BtZfvxTrhttps://video.igem.org/lazy-static/thumbnails/0aee5ac2-ffd4-41f7-9bf3-cad8e5bc872d.jpgMechanism of creation and application of prokaryotic polyploid minimal chassis cellsIn this study, we designed a novel prokaryotic polyploid minimal chassis system capable of stably maintaining both engineered and wild-type chromosomes. Morphological analysis revealed increased length, volume, and surface area in polyploid E. coli, with intracellular enrichment of metabolites like phenylalanine. This system showed enhanced stress resilience under high temperatures and varying pH levels, suggesting potential for evolutionary adaptation. Additionally, the chassis demonstrated improved carbon and protein metabolism, enhancing production of heterologous proteins such as GFP and poly-β-hydroxybutyrate PHB, with output exceeding that of streamlined and wild-type strains. We also developed a genome-scale metabolic network model for DGF-298 and its polyploid counterpart, integrating transcriptomic data to refine growth rates and biomass yield. Multi-objective optimizations within the metabolic model, combined with a deep learning-aided environmental model, enabled real-time PHB production predictions in fermenters via multi-sensor arrays.https://static.igem.org/peertube/streaming-playlists/hls/8c47a898-3a51-4407-afcf-7b783b9df04b/0324900f-2a3c-4a14-9cb3-ab894278cfbe-master.m3u8https://video.igem.org/videos/embed/ijGqHwHNHSjYg2BtZfvxTr618052024-12-04T17:07:43.203ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nxDMCFc65NGs1seg8SjJKJhttps://video.igem.org/lazy-static/thumbnails/6530aa3e-26e6-4993-90d1-5e25dcfb4940.jpgNanoflowers: The Perfect Valentine's Gift for Enzymes (Better Than Roses)This live talk will explore the transformative potential of enzyme immobilization, focusing on a very particular kind of nanostructure, nanoflowers. We will discuss how nanoflowers, specifically those composed of cobalt phosphate salts, provide a stable and highly efficient matrix for enzyme immobilization. By mimicking biological mineralization, these structures offer advantages like increased enzyme activity, reusability, and long-term stability. Characterization techniques such as electron microscopy and spectroscopic methods will be highlighted to showcase the unique morphology and surface interactions of nanoflowers. We will also explore how this innovative immobilization technology can overcome challenges in industrial enzyme applications, optimizing biocatalysis in sectors like plastic degradation and bioremediation.https://static.igem.org/peertube/streaming-playlists/hls/ae7b4172-5453-4539-b2fc-46656b8b5560/59fb2c7b-4c74-41d6-b100-97d964ef219c-master.m3u8https://video.igem.org/videos/embed/nxDMCFc65NGs1seg8SjJKJ6180132024-12-03T08:19:45.670ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/61UnjUsb3PViTubY7G9NJUhttps://video.igem.org/lazy-static/thumbnails/8ba972e9-5152-4874-990a-d27cba5fccff.jpgMaGenTa - Designing a spatiotemporal system capable of controlling gene expression using magnetic...Spatiotemporal gene control is a crucial technique utilised by academics in a variety of fields, ranging from neuroscience to stem cell research. However, the tools available for the control of gene expression in cell-based systems are limited - whether by timescale, spatial resolution, cost, or a combination of the three. To overcome these limitations, we have designed our MaGenTa technology: a spatiotemporal targeting system capable of activating gene expression using a combination of magnetic fields, magnetic nano particles (MNPs) and genetic AND gates. Our system relies on the activation of cellular pathways that function independently from one another. For this, we identified 3 viable pathways: thermal, mechanical and magnetic.https://static.igem.org/peertube/streaming-playlists/hls/289df74e-0cc1-41f9-95dc-edaff2d150b0/114528db-e77e-4c7c-8752-fcec166898d0-master.m3u8https://video.igem.org/videos/embed/61UnjUsb3PViTubY7G9NJU5850302024-12-04T16:57:17.542ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vjAeNpSU6TVJKEVMoGsQ2Nhttps://video.igem.org/lazy-static/thumbnails/806712ea-c685-4fb0-b46a-fb8e465e1c57.jpgBeyond AlphaFold: Exploring the use of AI in protein engineering from structure to functionProtein engineering is always challenging, especially if you don’t know much about your protein. Therefore, we predicted the previously unknown structure of our enzyme and modeled the binding of substrates to identify the active site. This allowed us to design variants of our protein using AI-based and rational approaches. Additionally, we developed a tool to perform in silico directed evolution and make it accessible to all iGEM teams. We used a protein language model, refined with sequences related to our enzyme, measured the activities of some variants, and fed this data back into the model. The in silico directed evolution allowed us to predict highly efficient variants. Join us on our journey towards AI-based protein engineering of structure and function.https://static.igem.org/peertube/streaming-playlists/hls/ed718245-bb3c-4cdc-9fdc-c8134f4b6f38/e7622191-69d2-49ec-a440-33cccd4fc649-master.m3u8https://video.igem.org/videos/embed/vjAeNpSU6TVJKEVMoGsQ2N622062024-12-04T17:03:06.887ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tJeD9t7m9euyWTJ1ov65WShttps://video.igem.org/lazy-static/thumbnails/33c457bd-845f-45cd-8748-8025899fe3ab.jpgFrom Challenges to Solutions: Hidden Gems in Our iGEM AdventureEmbark on a journey through the untold chapters of our iGEM adventure, where each challenge faced has paved the way for innovative solutions and discoveries. This talk is dedicated to unveiling the hidden gems within our project - the intricate problem-solving in our dry lab explorations, the pioneering adjustments to our thermosensor, and our proactive efforts to weave inclusivity into the fabric of our research. These elements, often overshadowed in the limelight of main outcomes, are crucial stories of resilience and creativity. By sharing these insights, we aim to illuminate the path for future iGEM teams, offering a beacon of inspiration and guidance as they navigate their own scientific quests. Join us to explore the depths of our project's achievements, celebrating the behind-the-scenes triumphs that have significantly shaped our iGEM expedition.https://static.igem.org/peertube/streaming-playlists/hls/e08c636d-2afe-4469-a697-274ab23dd256/597719fb-6d0f-43d8-a28c-b9558be2e23e-master.m3u8https://video.igem.org/videos/embed/tJeD9t7m9euyWTJ1ov65WS6520112024-12-04T16:57:46.737ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/6dTXS6iiu5b3iwwvRfEAhrhttps://video.igem.org/lazy-static/thumbnails/0d51032a-7209-4897-9dac-966cda177ff3.jpgBo-Find: A rapid detection device for field-side diagnosis of bovine respiratory diseaseAlberta, Canada is home to more than 4.5 million heads of cattle and is the largest cattle producing province. Bovine respiratory disease (BRD) has a significant economic impact on cattle production, as approximately 15% of cattle in North America are treated each year. BRD is caused by several different bacterial and viral pathogens. The four most common bacterial pathogens are Mannheimia haemolytica, Pasteurella multocida, Histophilus somni, and Mycoplasma bovis. Misdiagnosis of infected cattle can lead to an increase in antimicrobial resistance genes (ARGs) and loss of antibiotic efficacy. Currently, only traditional bacterial culture and PCR analysis of the pathogens can provide accurate diagnosis; however, results can take up to a week. In order to quickly and successfully diagnose BRD pathogens in the field, we propose the use of a recombinase polymerase amplification (RPA)-based tool that can reliably give test results in under an hour without laborious sample preparation or analysis.https://static.igem.org/peertube/streaming-playlists/hls/2a4aa458-bbee-41f1-875a-2b3efb993f31/29b93ab2-e805-4125-a777-7cfbd25edeb4-master.m3u8https://video.igem.org/videos/embed/6dTXS6iiu5b3iwwvRfEAhr567022024-12-04T16:58:20.918ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/1rFYjFgHbDJ5BWU3RjL7Aqhttps://video.igem.org/lazy-static/thumbnails/278c980e-fefb-49c5-9c18-5fb06f23ec1d.jpgKlothYProject KlothY focuses on developing a modular system to synthesise a textile fabric made of bacterial cellulose produced by Komagataeibacter xylinus. K. xylinus was genetically modified, to be able to regulate cellulose production. To modify the properties of the cellulose fabric, Saccharomyces cerevisiae acts as producer of metabolites, which impact flexibility and colour of our final product. We worked on integrating plant genes involved in hemicellulose biosynthesis and modified chromoproteins. Three chromoproteins attached to a cellulose binding domain would be used, to dye our fabric in a range of colours based on the CMY color model, also used in printers. The goal for the project is to contribute to the reduction of the harmful environmental impact of textile production globally, by focusing on local production and cutting down on the need for pesticides, emissions through transportation, high water usage and environmental toxic pollutants, used in bleaching and coloring processes.https://static.igem.org/peertube/streaming-playlists/hls/03963a30-1d5e-462e-91de-5e47bdcfc6c4/e00af3b5-6c54-4bfd-bef1-054e4a2d0aea-master.m3u8https://video.igem.org/videos/embed/1rFYjFgHbDJ5BWU3RjL7Aq607062024-12-03T08:20:18.813ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/kdJiW4RXZimYsm52raNQi5https://video.igem.org/lazy-static/thumbnails/69e182a8-8565-4e30-a0f4-b262c4335f09.jpgPHAGEVODirected evolution mimics and accelerates the natural evolution process by generating random mutations and selecting desired variants. This project introduces PHAGEVO, a novel tool that combines Phage-Assisted Non-Continuous Evolution (PANCE) and the Evolution.T7 system, providing a powerful method for in vivo protein evolution. While PANCE enables efficient selection of functional variants, it lacks targeted gene specificity. We decided to combine it with Evolution.T7, a system developed by Evry-Paris-Saclay team 2021 which enables targeted and modular double-stranded in vivo mutagenesis using RNA polymerase-guided cytosine and adenine deaminases’ that introduce mutations in specific gene sequences. As a proof of concept, the project focuses on evolving the XylS transcription factor to detect plastic degradation products Phthalic Acid (PA) and Terephthalic Acid (TPA). Our project, PHAGEVO, also leverages the power of artificial intelligence to engineer XylS for PA and TPA sensitivity owing to FLINT, a model developed by our team based on PocketGen.https://static.igem.org/peertube/streaming-playlists/hls/9ba4a23c-7ffa-4dd1-ab9d-cb1cb3dc783e/4413488c-a714-48ee-a04b-43af787e2fdd-master.m3u8https://video.igem.org/videos/embed/kdJiW4RXZimYsm52raNQi55150152024-12-03T08:20:18.918ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/1oqQUti2jmRAXkdJ4QfYRphttps://video.igem.org/lazy-static/thumbnails/b6d96381-c5c9-4f87-9a85-d15a8f3983c4.jpgA soothing nasal suction complex, no taboos to ride a roller coaster!Riding a roller coaster is a thrilling entertainment activity, however, adverse reactions unavoidably occur, such as dizziness, vomiting, head tremors. In addition, activities related with vestibular functions including riding, boating and bungee jumping would also bring the similar side effects. Based on our recent invivo studies, vitamin B6 and B12 took effects in nourishing vestibular functional areas mainly through increasing the permeability of vascular endothelial cells and regulating special signal pathways. Therefore, in the present project, we planned to research and develop a soothing nasal suction complex to minimize vestibular function damages. Through constructing neurons damage model, the effects of VB6/VB12 and their combinations in alleviating neuron injuries were primarily evaluated, and their best ratio were selected, the molecular mechanism was further validated.. Then, VB6/VB12 nanoparticles were prepared with ursolic acid, to promise the slow-release effects. With feedback gathering, we hope to create an effective and novel remedy.https://static.igem.org/peertube/streaming-playlists/hls/0321ac50-05b3-46c9-b352-5d703e61caa1/26c137c2-b657-45b7-85d5-a05760a6d232-master.m3u8https://video.igem.org/videos/embed/1oqQUti2jmRAXkdJ4QfYRp387032024-12-04T17:02:48.331ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rj494fxRdtRCgcCxqtSJ2Vhttps://video.igem.org/lazy-static/thumbnails/63fefd63-ded5-4952-9714-9d9977796d3d.jpgPLASTICOPSMicroplastic pollution is a global threat. Humans, on average, are exposed to 2012 ± 598 microplastic particles, through ingestion, inhalation, or dermal contact, causing serious health issues like reproductive abnormalities, oxidative stress and neurotoxicity. To address this issue, we propose a three-stage solution utilising the affinity between peptides and microplastics: modeling, expression and deployment. Interaction between shortlisted peptides and microplastic particles were studied using molecular dynamics. The most efficient peptide’s sequence was cloned into expression host E.coli BL21(DE3). The recombinant peptides, containing hexa histidine tags bind strongly to Ni-NTA affinity resins. The his-tags aided purification and in deployment. The resin-peptide complex efficiently captures hydrophobic microplastics upon contact. Microscopic and spectrofluorimetric analyses of the recovered resin-peptide complex would demonstrate the successful removal of microplastics from the test sample. This method is simple, avoids harmful chemicals, and works under various conditions.https://static.igem.org/peertube/streaming-playlists/hls/ccf9c9ed-176e-42ad-918d-17380120a097/8904ed9d-6b9a-40fa-9881-299348f985db-master.m3u8https://video.igem.org/videos/embed/rj494fxRdtRCgcCxqtSJ2V6420252024-12-04T17:00:45.735ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pFCfMfDeAiqFaCt256H9Jhhttps://video.igem.org/lazy-static/thumbnails/be8217d8-6580-428d-8107-0553cf8589ad.jpgNodule Factory-An intelligent microaerobic biofactory!Over a third of the world's population can't afford healthy diets due to poverty, trapped in a dilemma between low income and malnutrition. Nodule Factory produces nutrients with rhizobia, innovatively addressing both issues. We will share about our N. Factory-an intelligent microaerobic biofactory with endless possibilities.https://static.igem.org/peertube/streaming-playlists/hls/bfca89fe-bf3b-4407-ac9b-25fbc1b896ac/f79b82b1-c30f-4aa1-8916-6a44e7492546-master.m3u8https://video.igem.org/videos/embed/pFCfMfDeAiqFaCt256H9Jh5390502024-12-04T17:00:00.988ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tmkwDzE6EphgFnrW5eLzZBhttps://video.igem.org/lazy-static/thumbnails/80fe0fbf-c444-4c18-b0ce-eb1ed822c1a9.jpgBiosynthesis of hypoglycemic peptide P37 in phchia pastorisThe main part is to show the experimental part of our engineering and results.https://static.igem.org/peertube/streaming-playlists/hls/dd7da76e-9def-4f08-babe-d65203276ce1/f9351fa1-c27e-44f5-9ed4-ccaa02151728-master.m3u8https://video.igem.org/videos/embed/tmkwDzE6EphgFnrW5eLzZB344042024-12-04T16:50:39.366ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/aKjyZk1AdGuWyPU6DVmPzphttps://video.igem.org/lazy-static/thumbnails/ebce3d56-0d5c-4655-ada7-30f896bfa062.jpgBOROHMA: A L-Borneol-based Minicell Insect-Repellent Fragrance.Our island home, the tropical country of Taiwan, is seasonally plagued by insects such as mosquitoes, ticks, flies, and mites. During the hot and humid summer months, mosquitoes and other insects breed in abundance, causing anything from minor itches to infectious diseases. Conventional active ingredients in insect-repellents such as DEET, while effective and cheap, have an unpleasant odor, cause allergies, and aren't environmentally friendly. As a country with an increasingly vibrant lifestyle, we also noticed the ever-rising popularity of fragrances. Our project, BOROHMA, combines insect-repellency and great aroma to create a customizable insect-repellent fragrance; we do so by biosynthesizing L-borneol, a pleasant-smelling and insect-repelling camphor derivative, and encapsulating it into specially engineered bacterial minicell to create a safe borneol-release system. This system is then mixed with different ingredients to craft smells that people love. By using borneol, we also honor our country’s booming camphor industry in the early 20th century.https://static.igem.org/peertube/streaming-playlists/hls/4eeeac67-c408-4697-8f5a-6a29d57938fd/39246147-bdd7-46bb-a8fc-9bd0ca397ca3-master.m3u8https://video.igem.org/videos/embed/aKjyZk1AdGuWyPU6DVmPzp5720182024-12-04T17:09:29.654ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/aomF2hEq9cxLJq6vmVQpmNhttps://video.igem.org/lazy-static/thumbnails/dc49eeaf-59ac-4185-b254-be204479f1b4.jpgBFH - Organizing an iGEM-MeetupIn 2024, the universities of Bielefeld, Frankfurt and Hamburg (hence the name BFH) have organized a European-wide meetup for iGEM teams. We want to talk about our experiences with planning, organizing and conducting the meetup. Meetups are a vital place for iGEM teams to showcase their projects, get input from other teams and experts, as well as forging acquaintances and planning collaborations. We want to encourage other teams to partake in these opportunities or inspire them to plan their own meetups. In this way we hope to strengthen the iGEM community and aid in the exchange of people working on synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/4c0159d7-6cdd-49ca-ae8f-8fe052e89d02/0d530c33-8c6d-4cd0-9ab4-54d78f07ac1f-master.m3u8https://video.igem.org/videos/embed/aomF2hEq9cxLJq6vmVQpmN5510572024-12-03T08:21:00.619ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/i2R2vyjBhRmqSEVTEXCV6Zhttps://video.igem.org/lazy-static/thumbnails/470ad82e-2676-474a-8b9f-aea7dfff1c11.jpgInexpensive EGFR Mutation Detection Kit for Early Diagnosis of Non-Small Cell Lung CancerLung cancer remains the leading cause of cancer-related deaths, with non-small cell lung cancer (NSCLC) accounting for 85% of cases. Current detection methods are either invasive or costly, limiting accessibility. Our project aims to develop an affordable, non-invasive diagnostic kit for early detection of NSCLC by targeting EGFR mutations, a key biomarker. Using padlock probes and rolling circle amplification (RCA) coupled with a split lettuce probe detection mechanism, the kit amplifies and identifies the mutated sequence in cell-free DNA from patient blood samples. This process eliminates the need for expensive PCR equipment, making the test accessible in low-resource settings. The fluorescent signal generated by the lettuce probe binding to the amplified product indicates the presence of the mutation. By providing a preliminary diagnosis, this kit can help identify high-risk individuals earlier, increasing the chances of timely treatment before the cancer advances to critical stages.https://static.igem.org/peertube/streaming-playlists/hls/89ed5079-6e84-473d-a0e5-f01fbeb200df/18a5b67b-ce69-4036-8f4e-3d925c373e37-master.m3u8https://video.igem.org/videos/embed/i2R2vyjBhRmqSEVTEXCV6Z524022024-12-04T17:00:59.906ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jLz2vM5c38Ly23bJgavJf2https://video.igem.org/lazy-static/thumbnails/b24c8b66-57a6-4ea0-a23a-679c4fd79d81.jpgPetalglow - to comfort, to companion, to inspireAnxiety disrupts the ability to relax, leading to difficulties in falling asleep. Traditional night lights, which many rely on for comfort. Exposure to light before bed can suppress melatonin levels, making it harder to fall asleep. PetalGlow was designed to offer a unique and holistic approach to mental well-being. At daytime, PetalGlow incorporates the therapeutic benefits of horticultural therapy. It arrives as a young plant, ready to grow under your care. Daily tasks like watering and caring for PetalGlow's growth create a mindful routine that alleviates mild anxiety and stress, promotes relaxation, and enhances mood. As night falls, PetalGlow takes its therapeutic effects a step further by emitting a soft, calming bioluminescent light that creates an ideal pre-sleep environment. Unlike harsh night lights, PetalGlow’s subtle glow provides just enough illumination to ease you into a restful state without disrupting the darkness needed for sleep.https://static.igem.org/peertube/streaming-playlists/hls/97fd9326-eeba-447f-86fe-e2e1a9cb370d/bd193224-a363-42b8-b988-e693cef7b1c9-master.m3u8https://video.igem.org/videos/embed/jLz2vM5c38Ly23bJgavJf2467042024-12-04T17:15:18.318ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/d9bebZkeXYJH3sHshox6Yuhttps://video.igem.org/lazy-static/thumbnails/b94df7c3-8889-4a44-8208-fef6b058c4d9.jpgCellular Agriculture in Space - Future DirectionsCellular agriculture promises to produce food orders of magnitude more efficiently compared to plants. Being pioneers in this field ourselves, we present many different directions research could take. Our presentation should be interesting for current teams as well as to the teams following in your footsteps. There are a lot of ideas for new iGEM projects.https://static.igem.org/peertube/streaming-playlists/hls/6251eabc-b276-4545-88e2-e53eb783c5b8/8023e401-10bd-4273-a791-af442dd91f2c-master.m3u8https://video.igem.org/videos/embed/d9bebZkeXYJH3sHshox6Yu627062024-12-04T17:03:27.960ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/r1z2YgFbx8HLxmTsDRRFsDhttps://video.igem.org/lazy-static/thumbnails/39025018-6354-48c4-a086-58ecc9cd163d.jpgEmpowering Minds, Inspiring Change: Our Approach to Inclusive EducationDuring our live talk, we will discuss our educational events and the evolution of our Youth Scientist Incubation Program (YSIP) developed over the summer. We will outline our activities prior to the program and the subsequent developments. Key topics will include the inspiration behind the program, our recruitment process for YSIP members, and the challenges we faced along the way. We will also cover how we organized and prepared for each class, ensuring two-way interaction between students and educators. By actively seeking student feedback, we continually improved our classes, allowing for hands-on experiences with various iGEM modules. This approach not only enhanced student learning but also provided us, as educators, with valuable insights into synthetic biology. We look forward to sharing our journey and the impact of YSIP on both students and educators.https://static.igem.org/peertube/streaming-playlists/hls/ca88d30c-48be-4a0b-a7ed-1a73b555645d/2c0a9d07-68dc-4cf7-8c26-1b2540375c3c-master.m3u8https://video.igem.org/videos/embed/r1z2YgFbx8HLxmTsDRRFsD7180162024-12-04T17:04:28.042ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/8udV37fFz1XUYQHWXVx1BChttps://video.igem.org/lazy-static/thumbnails/bc30edd9-cd18-49ce-9ce4-7ce6fa25ce7e.jpgPROMISE: Precision Oncology - Modular Immunotherapy using Surface-Engineered bacterial membrane v...Immunotherapies offer great potential for treating immune-mediated diseases, but often lead to resistance and adverse effects. To address this, iGEM TU Eindhoven is developing PROMISE, a novel trained immunity vaccine utilizing antigen-functionalized bacterial membrane vesicles (BMVs). Building on the Bacillus Calmette-Guérin (BCG) vaccine, PROMISE reprograms innate immune cells for a stronger, broader immune response, overcoming immune evasion and providing long-lasting protection. Unlike the live bacteria in the BCG vaccine, our BMVs are safe for systemic use because they cannot replicate. By functionalizing BMVs with disease-specific antigens, PROMISE also activates adaptive immune responses, ensuring a targeted and durable therapeutic effect. Initially focused on non-small cell lung cancer (NSCLC), the platform’s modular design allows for adaptation to other diseases. Advanced computational modeling tools identify highly immunogenic, patient-specific antigens, enabling personalized vaccines. Supported by expert collaborations and protected by a provisional patent, PROMISE has a clear path toward clinical translation and further development.https://static.igem.org/peertube/streaming-playlists/hls/3ca0c145-f705-4c1a-87c5-1339855a349a/2a8a9896-b049-4617-a5c4-cd449864435e-master.m3u8https://video.igem.org/videos/embed/8udV37fFz1XUYQHWXVx1BC572072024-12-03T08:21:17.827ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9wPMcQG1KAFQDDeLfjoec1https://video.igem.org/lazy-static/thumbnails/456c3490-70fe-4d17-9d98-fa1b60158262.jpgSAMUS: Self-healing Adhesive Materials for Underwater Soft-robotNAU-CHINA 2024’s project is SAMUS, Self-healing Adhesive Materials for Underwater Soft-robot. Considering the numerous challenges soft robots faced in the ocean exploration process, we developed a biomaterial with both self-healing and adhesive capabilities for soft robots. For the self-healing module, we used a RNA cyclase ribozyme mechanism to increase the repeated times of tandem repeat polypeptides with n repetitions (TRn) derived from squid ring teeth proteins, which increase the self-healing capability of our material. For the adhesive module, we connected mussel foot protein 5 (Mfp5) with TRn4 to create a new fusion protein that acts as a “double-sided adhesive”, enabling our self-healing material to adhere to the substrate of underwater soft-robots. This material autonomously repairs damage, aids underwater exploration and helps protect the marine environment.https://static.igem.org/peertube/streaming-playlists/hls/4516de12-8343-4d89-b490-152c82c34122/663bead1-89e4-4cc0-abb6-c48d9a3c5be1-master.m3u8https://video.igem.org/videos/embed/9wPMcQG1KAFQDDeLfjoec15820242024-12-04T17:03:40.905ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/g8ETNWzMvHu2bFezarjBnzhttps://video.igem.org/lazy-static/thumbnails/c1b41577-9eb2-4b4a-8285-d40f6e6af6a6.jpgChatPartsiGEM parts registry is an open database containing DNA elements after years of uploading and contribution by iGEM teams. However, the internal data quality is uneven, and some parts have low integrity and only contain sequences without description, optimization, and contribution. In addition, within the iGEM parts registry, the presentation of the result includes text and pictures that lack clear index and quick screening. Therefore, we design an AI Agent, 'Chatparts', that integrates iGEM parts information utilizing RAG (Retrieve-Augmented Generation) system to re-organize the information management and retrieval of parts. After the implementation of RAG, fine-tuning is another essential part of our model training, intending to make the model perform better in particular domains. We also developed a community called iGEM ChatParts Community to establish a platform for the usage of our AI Agent and the communication of iGEMers.https://static.igem.org/peertube/streaming-playlists/hls/7a8b414f-4146-420a-8699-004afe2e868f/45cc8251-5f37-415e-80b4-deb4593c962b-master.m3u8https://video.igem.org/videos/embed/g8ETNWzMvHu2bFezarjBnz597072024-12-04T17:04:07.995ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rwo5uicK4AkAeteEoXV7QJhttps://video.igem.org/lazy-static/thumbnails/121d36ca-d3db-4161-8c92-1047fb485e85.jpgCreating funktional fusion ProteinsWe have created a webtool that helps finding functional fusions for regulatory Proteins. These can be used for the activation of geneclusters or to make your own biosensor. We will talk about the use of the Webtool and the possibilitys it presents for future researchhttps://static.igem.org/peertube/streaming-playlists/hls/ceb262a0-d818-47c2-9996-b46cf1d3715a/5b95d30c-0f27-4991-96b8-2232cf0572ee-master.m3u8https://video.igem.org/videos/embed/rwo5uicK4AkAeteEoXV7QJ608032024-12-04T17:04:45.465ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gYXvKWPm3SM8J95TXq9kD6https://video.igem.org/lazy-static/thumbnails/397ce0fc-281c-4e8b-ba09-c7e3fc279646.jpgThe Future of AgricultureNingxia, China, faces significant agricultural challenges due to high evaporation rates, resulting in crop failures. To address this issue, we propose a novel approach utilizing genetically engineered E. coli to produce hyaluronic acid hydrogels. Hyaluronic acid is a naturally occurring polymer known for its exceptional water-retention properties. By applying hyaluronic acid into the agricultural sector, we aim to create a cost-effective and sustainable solution to combat drought-induced crop losses. Our strategy involves genetically modifying E. coli to express enzymes that are crucial in producing hyaluronic acid. The modified bacteria will produce hyaluronic acid, which can be extracted and used to create hydrogels. These hydrogels will be designed to absorb and retain moisture in the soil, reducing water loss and improving soil hydration levels. The ultimate goal of this project is to assist farmers in drought-prone regions, such as Ningxia, with a practical and affordable tool to enhance crop yields.https://static.igem.org/peertube/streaming-playlists/hls/816cf131-70ed-4a3b-9a06-5ac60f754af3/66e434f0-2333-4bdf-8e44-c31f23aab39b-master.m3u8https://video.igem.org/videos/embed/gYXvKWPm3SM8J95TXq9kD6527082024-12-03T08:21:43.710ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nu3i4tDPTRTFqeZDBfubQehttps://video.igem.org/lazy-static/thumbnails/6c417698-c246-4bb1-a905-153e95626939.jpgEcorin: Sustainable Heparin Biosynthesized in E. coliThe reliance on porcine-derived heparin poses significant risks, including contamination, supply chain volatility, and ethical concerns. Our team engineered a novel, scalable bacterial system using E. coli Nissle 1917 to biosynthesize heparin. By introducing key enzymes involved in the heparin biosynthesis pathway, we enable E. coli to produce heparin from its naturally occurring precursor, Heparosan. This personalized approach eliminates contamination risks from similar polysaccharides while ensuring a reliable supply of high-purity heparin. Our design not only addresses the ethical and religious concerns surrounding porcine products but also offers a sustainable alternative for global heparin production.https://static.igem.org/peertube/streaming-playlists/hls/adfa26b7-2266-45f2-98af-dd98f56ff535/b1c803a3-c024-49be-aa14-cdf631fa551f-master.m3u8https://video.igem.org/videos/embed/nu3i4tDPTRTFqeZDBfubQe5790192024-12-03T08:21:44.272ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/a7Di4skfqW9eAj9Dsu6YXRhttps://video.igem.org/lazy-static/thumbnails/6ebf5416-c532-4862-8b97-585c0977c1a1.jpgMulti-Pathway Approach to a Bioengineered Fluorescent PFAS SensorPFAS (poly and per-fluoroalkyl substances) are contaminants characterized as “forever chemicals” due to their inability to break down, so increasingly widespread where 97% of Americans have traces in their blood (NHANES 2015). The health risk PFAS creates is not fully understood but has been implicated in several things including cancers. Our team attempted to combat this problem through three approaches attempting to develop an optimal PFAS detection circuit: the first uses the promoter prmA as it has been documented to upregulate gene expression when exposed to PFAS; the second uses a FAB-GFP-containing gene circuit which was hypothesized via molecular dynamics simulations to bind to PFAS because of its fatty acid structure; the third uses a synthetic transcription factor that responds to estradiol in yeast as PFOA may be a strong estrogen receptor agonist. Our wet lab results showed inconclusive for all of our constructs, thereby requiring more experimentation.https://static.igem.org/peertube/streaming-playlists/hls/49cfb1a2-65f6-4ae9-b78e-a25ee4f4848f/d8069232-a7fb-4193-8ccd-899d3acd5e05-master.m3u8https://video.igem.org/videos/embed/a7Di4skfqW9eAj9Dsu6YXR667092024-12-04T19:38:05.925ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/frRTY94x7TGFKXmZ9RV1Lihttps://video.igem.org/lazy-static/thumbnails/7698caec-290c-4075-8c94-807ff9e3aebc.jpgDienamite: ceasing the destruction of spider mites to revitalize gardens and plantationsSpider mites are notorious pests that destroys worldwide agriculture and horticulture. With abundant progenies and a short life cycle, they develop resistance to chemical pesticides at an exponential rate, making them difficult to exterminate using current strategies. Determined to resolve this global challenge, GreatBay-SCIE thus proposed a thorough solution called Dienamite, which shields plants at multiple stages including pre-, mid-, and post-infection stages. By bio-synthesizing 7-epi-zingiberene, 9-hydroxy-zingiberene, 9-hydroxy-10,11-epoxy zingiberene, mite venom peptide, spider venom peptide, and harpin protein, Dienamite is capable of establishing progeny-reducing effects on spider mites, exterminating adult mites with high target-specificity, and boosting plant immunity simultaneously. Ultimately, we wish to bring prosperity back to gardens and augment agricultural production. We also believe that the emergence of Dienamite can reduce reliance on chemical pesticides, minimizing toxic residues and preserving the environment.https://static.igem.org/peertube/streaming-playlists/hls/74fc48f5-338a-444e-8360-68a58bb0f8a1/f1be2405-f472-4394-b13e-b82a3b79abcd-master.m3u8https://video.igem.org/videos/embed/frRTY94x7TGFKXmZ9RV1Li5760582024-12-04T17:13:20.985ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/sDbvakZz1h2N5PuZ2jvj2Qhttps://video.igem.org/lazy-static/thumbnails/dd2624c3-11f4-4795-af78-04f20a9b194b.jpgThe Power of Nature: Pioneering a New Approach to Diabetes Treatment with IsoorientinDiabetes mellitus is a global health issue. Isoorientin, a plant-derived compound, has shown potential in managing diabetes by promoting insulin secretion and improving insulin sensitivity. However, its low natural concentration limits large-scale production, highlighting the urgent need for alternative biosynthesis methods. To address this challenge, our study focuses on the biosynthesis of isoorientin by engineering E. coli to express the C-glycosyltransferase Gt6CGT. The Gt6CGT gene was initially cloned into the pET-21a(+) expression vector, and a recombinant plasmid was constructed using seamless cloning technology. This plasmid was subsequently transformed into E. coli Rosetta (DE3) competent cells, where protein expression was induced by IPTG. After expression, the enzymatic activity of Gt6CGT was confirmed through microplate reader and HPLC analysis. This system provides a robust foundation for the efficient biosynthesis of isoorientin and supports its potential large-scale production as a natural therapeutic for diabetes.https://static.igem.org/peertube/streaming-playlists/hls/d7be98e3-2ee2-4455-88b1-da841762a57a/b89e5840-c506-4c9c-8faa-d72ba6277f74-master.m3u8https://video.igem.org/videos/embed/sDbvakZz1h2N5PuZ2jvj2Q613062024-12-04T17:05:31.026ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nzZXUGrgHYhVTkxj9qVRjThttps://video.igem.org/lazy-static/thumbnails/e67d3963-50c0-463a-b8ff-de2c13bace19.jpgScentinel: Fragrance for EmpowermentScentinel is an innovative project that harnesses synthetic biology to produce aromatic compounds aimed at improving the lives of visually impaired women. The name "Scentinel" combines "scent" and "sentinel," symbolizing how our fragrance-based solutions act as a guardian for women’s health, particularly during their menstrual periods. By engineering yeast to biosynthesize terpenes like limonene and nerol, we develop products that emit specific scents, helping women detect the onset of their menstrual periods. This empowers them to manage their menstrual health with greater independence and dignity. Additionally, our products include fragrances designed to alleviate anxiety and stress during menstruation, along with antimicrobial properties to ensure hygiene. Through this project, we aim to combine science and empathy, creating solutions that address both physiological and emotional needs, ultimately enhancing the quality of life for this underserved community.https://static.igem.org/peertube/streaming-playlists/hls/aecf2d85-7381-47db-bed4-e20373b9a3f3/846a15d8-437c-441e-92e9-1a87dad0ca65-master.m3u8https://video.igem.org/videos/embed/nzZXUGrgHYhVTkxj9qVRjT541072024-12-04T17:08:10.208ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tS8KEHnTtcVpEvHZ8wgr4Thttps://video.igem.org/lazy-static/thumbnails/2d25b09c-283d-4e72-bebd-48c6fdb2f769.jpgPlasmid.AI: An intelligent platform to write new lifeThis year at iGEM Toronto, we are developing Plasmid.AI – a platform that uses generative AI to create new, functional DNA sequences. Our ultimate goal is to write entirely new genomes to create novel organisms that have fine-tuned phenotypes. To make headway towards this challenging task, we are starting with the simplest proof of concept – the generation and validation of new plasmid components. To do this, our dry lab team employs sequence-based machine learning approaches to generate novel plasmid sequences. Key plasmid components, such as the origin of replication, are generated and validated in silico. The wet lab team then assesses the viability of these components in vitro – the results of these assays refining dry lab’s next iteration of sequences. Concurrently, the hardware team develops high-throughput tools for automated plasmid testing, supported by a comprehensive human practices education campaign and entrepreneurship initiatives to bring AI-driven solutions to market.https://static.igem.org/peertube/streaming-playlists/hls/e1a6b5d0-1570-40fb-b2f7-da7aacb1b0bd/43042d9a-f396-4905-ae2b-87bd4912b54d-master.m3u8https://video.igem.org/videos/embed/tS8KEHnTtcVpEvHZ8wgr4T7950622024-12-04T17:10:07.911ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/k3Fky4XnjFWS34SpKQrERyhttps://video.igem.org/lazy-static/thumbnails/9396713e-d125-4f49-afdf-99b0d233c510.jpgAHL Assassins: Engineering Bacillus subtilis to Disarm Aquaculture PathogensThe huge aquaculture industry in China faces serious threats from Aeromonas hydrophila, a pathogenic bacterium that can cause motile septicemia in aquatic animals. This pathogen utilizes AHL molecules to activate quorum sensing and express virulence factors. To combat A. hydrophila, we introduced AHL lactonases from various bacteria to Bacillus subtilis. By degrading AHL, our engineered B. subtilis can reduce the virulence of A. hydrophila and protect aquaculture animals. In the future, we hope that this approach could be scaled up for widespread application, potentially integrating with existing aquaculture practices to provide a sustainable and effective solution against bacterial pathogens.https://static.igem.org/peertube/streaming-playlists/hls/9a3d5d4b-fc5d-4291-8539-23427e475d1a/d97caf33-a0a5-4252-b647-aac62cc69ab3-master.m3u8https://video.igem.org/videos/embed/k3Fky4XnjFWS34SpKQrERy525052024-12-04T16:56:38.111ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ufsRLyo5zyzrB5C2qRzsPuhttps://video.igem.org/lazy-static/thumbnails/d2d2e242-24b4-4bbc-8b0d-2ff153beb1cf.jpgMulti-omics data mining and platform constructionOver the past year, our team has delved deeply into multi-omics data mining and the application of deep learning and large models in human medical health. At the same time, we have also attempted to build a comprehensive platform. Through this presentation, we hope to showcase our thoughts and perspectives on these fieldshttps://static.igem.org/peertube/streaming-playlists/hls/e4c4d8dd-ddc9-4a91-9f0c-214eb2c9e4e2/cc5f1e98-fbb0-419e-8d02-96d51e9a8e3d-master.m3u8https://video.igem.org/videos/embed/ufsRLyo5zyzrB5C2qRzsPu459012024-12-03T08:22:27.751ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/traXzKsbzynNypvVL3medRhttps://video.igem.org/lazy-static/thumbnails/5ab94aaa-c20c-4da8-b4a6-4946fd6bedc7.jpgwomen's stem powerAs society progresses, the concept of gender equality has become deeply ingrained, but certain stereotypes about women still persist, especially the belief that women are not suited for studying and pursuing STEM-related education and careers. In response, we conducted a social survey, and after analyzing the results, we decided to launch a series of public science outreach activities aimed at promoting scientific knowledge and raising awareness of women’s contributions in the field of science. These activities include creating posters, writing WeChat articles, and setting up roadside booths. We also composed a song themed around women, calling on society to break stereotypes about women and encouraging more women to enter the STEM field. Through these efforts, we hope to change outdated perceptions and inspire more women to take an interest in and develop a passion for science.https://static.igem.org/peertube/streaming-playlists/hls/de2a799f-d7b3-4ece-9fa5-93c9e3659d3d/4b07ea28-b54d-4503-9950-8e478702ea33-master.m3u8https://video.igem.org/videos/embed/traXzKsbzynNypvVL3medR509062024-12-04T17:05:37.555ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/45mPFdk9xAvtdMC8Wg68Zdhttps://video.igem.org/lazy-static/thumbnails/2a33c5ae-2f86-4cd5-b840-0f860a2b349c.jpgHEATMAP: Harmonizing Enzymatic Activity and Temperature in Metabolic PathwaysThe optimization of metabolic pathway within the Saccharopolyspora spinosa plays an irreplaceable role in increasing purity and unit yield of spinosad. Enzymes, as essential components of life, have long been a research focal point. One of their fundamental characteristics, optimal temperature, serves as a key link between biological activity and temperature. In this project, we set up a deep learning model to predict the optimal temperatures of enzymes within the body of Saccharopolyspora spinosa and compared them to the actual fermentation temperatures to identify enzymes with large differences. These enzymes became our key targets for optimization. Moreover, to simplify the optimization, based on the GEM model, we added enzyme and temperature constraints to construct the etcGEM model so that key enzymes with yield limitations can be identified. Targeted evolution of these key enzymes brings their optimal temperatures closer to the actual fermentation temperatures, thus improves productivity.https://static.igem.org/peertube/streaming-playlists/hls/18e7391b-64aa-459e-9228-8ad3aac99e2a/68783d15-c6a5-44ce-b291-81715e9917c1-master.m3u8https://video.igem.org/videos/embed/45mPFdk9xAvtdMC8Wg68Zd617052024-12-03T08:22:29.254ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/4fKhroNiUKFRn3214rB8iohttps://video.igem.org/lazy-static/thumbnails/452d255b-b99f-4239-850b-6802fac92124.jpgSUPERB-Sustainable upcycyling of PET to produce economic and promising bacteria celluloseSUPERB, by using machine learning , predicts potential efficient mutant types and the glycosylation mutation sites from the known PET hydrolase database to enhance the efficiency of plastic degradation in mild and acid conditions. Furthermore, molecular docking is performed with the mutated enzyme and PET, HEMT to identify the most optimal mutant variant. At the same time, by optimizing the chassis cell Pichia pastoris and expression elements, a strain with high expression of plastic degrading enzyme was constructed. Combined with the way of biological transformation, the plastic degradation products of terephthalic acid (TPA) and ethylene glycol (EG) are synthesized into bacterial cellulose to realize the recycling and upcycling of plastics.https://static.igem.org/peertube/streaming-playlists/hls/1a5a80cb-c845-4c2f-8bc0-16ff55bdf554/529b92b5-22f7-481d-adeb-0b8d13dad771-master.m3u8https://video.igem.org/videos/embed/4fKhroNiUKFRn3214rB8io432092024-12-04T17:06:08.536ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/i8pXXpMK2EFmwwq5re5gLjhttps://video.igem.org/lazy-static/thumbnails/2a870019-c163-4bdf-ae52-a97a01a088a8.jpgLantern: Programmable Logic Framework Based on Recombinase and CRISPR InterferenceProgrammable Logic Devices (PLDs) have become pivotal in the development of digital circuits. Unlike traditional digital chips, which have fixed internal circuits that cannot be modified post-production, PLDs allow for manual reconfiguration after manufacturing, enabling them to perform various logic functions. A primary objective of synthetic biology is the application of electronic engineering principles to cellular and biomolecular systems. By manipulating different genetic circuit modules, cells can be engineered to perform specific tasks akin to digital devices. Integrating PLDs into cellular systems opens the possibility of programming cells to exhibit reliable, robust, and diverse behaviors. Existing powerful tools in biology, such as recombinases—a robust recombination framework—and CRISPR interference (CRISPRi), an effective NOT gate widely used in gene circuit design, facilitate this endeavor. This project aims to utilize recombinase and CRISPRi to construct programmable logic pathways in organisms, thereby enabling the systematic programming of cellular behaviors.https://static.igem.org/peertube/streaming-playlists/hls/8ab45518-d47f-484f-9fd2-5d35ab83a536/caccb59f-36f8-4aca-956b-033541fc3781-master.m3u8https://video.igem.org/videos/embed/i8pXXpMK2EFmwwq5re5gLj668052024-12-03T08:22:52.050ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/b7hkD5q8RzjPzpRqeT9yVnhttps://video.igem.org/lazy-static/thumbnails/52d38de7-d4c2-4a37-9d63-f5fbdb9d01ae.jpgPCas-Detect & Kill Prostate Cancer in one fell swoopProstate cancer is often diagnosed only after symptoms appear, and existing screening methods tend to be either costly or unreliable. Our goal is to develop a new, affordable, and user-friendly screening technique that also targets and eliminates prostate cancer cells. We use PSMA as a biomarker to detect these cells, and a plasmid that triggers the release of Gaussia Luciferase (GluC) in the patient's urine. Additionally, the plasmid promotes the release of an apoptosis regulator (Bax) to help kill the cancer cells. Another important aspect of our project is education. We have created a lesson plan aimed at sparking junior secondary students’ interest in synthetic biology and encouraging their future involvement in the field. Teaching these students in September also provides us with valuable insights from them.https://static.igem.org/peertube/streaming-playlists/hls/51dbeb12-1441-4508-b01e-a574b1c47aa7/54b71c8b-b304-400c-a242-d1dcd293ae92-master.m3u8https://video.igem.org/videos/embed/b7hkD5q8RzjPzpRqeT9yVn6160202024-12-04T17:08:54.350ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/7gTDwq1RHsdsybCSrYMcJyhttps://video.igem.org/lazy-static/thumbnails/79eeff56-856d-4d0f-94a1-7158f024a118.jpgiGEM Hackathon: Winner AnnouncementiGEM Hackathon: Winner Announcementhttps://static.igem.org/peertube/streaming-playlists/hls/32ced12c-a329-494e-b552-207a64aeafd8/98493051-0062-4269-bdf0-7a0b0c91d231-master.m3u8https://video.igem.org/videos/embed/7gTDwq1RHsdsybCSrYMcJy173052024-12-03T22:37:04.392ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/oU2QgdmiUeMcjC1dUx89i7https://video.igem.org/lazy-static/thumbnails/f205e02f-9078-4a74-9d8a-6fdba2ca47db.jpgMagnifica mirifica: pathway to puerarin!The Thailand-RIS team aims to make neurodegenerative disease treatments more accessible by developing a sustainable method for producing puerarin, genistein, and daidzein, all isoflavonoids with neuroprotective properties. Currently, the production of these isoflavonoids is costly, labor-intensive, and time-consuming. This process would be made more efficient by transferring the key enzymes in the isoflavonoid pathway responsible for producing these compounds from its native plant, Pueraria lobata v. mirifica, to a more sustainable and less resource-intensive plant, Nicotiana benthamiana, through Agrobacterium vector-mediated infiltration. The enzymes transferred include chalcone synthase (PmCHS), chalcone reductase (PmCHR), chalcone isomerase (PmCHI), isoflavone synthase (PmIFS), 2-hydroxyisoflavanone (PmHID), and C-glycosyltransferase (PmC-UGT). The team successfully modified N. Benthamiana and established proof of concept by finding traces of all 3 of the targeted compounds, with genistein being the most prominently detected and puerarin being minimally detected.https://static.igem.org/peertube/streaming-playlists/hls/b96cdb0b-021a-4a38-ae73-038ae4a2c488/d6b53573-d1bc-4d3e-a27c-538181472c3a-master.m3u8https://video.igem.org/videos/embed/oU2QgdmiUeMcjC1dUx89i7621092024-12-04T17:08:38.049ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/eLZynuheLg2KrzY7RNfTBFhttps://video.igem.org/lazy-static/thumbnails/4a314fcb-4ff2-450d-a168-4385a2f4e83d.jpgEngineered bacteria shed lights on oil remediationIn this exciting journey, RDFZ-CHINA's 17 high schoolers tackle oil pollution head-on! We delve into innovative solutions, as petroleum pollution plagues our environment. Traditional fixes? Limited. So, we crafted a game-changer: Bacillus subtilis & E. Coli work wonders. The former degrades oil, the latter boosts plants. Safe, eco-friendly, and efficient. Plus, our hybrid tech combines plants & microbes, a powerful duo cleaning soil. Oil-activated bacteria, safe & sound. Together, we pave the way for a greener, more durable tomorrow!https://static.igem.org/peertube/streaming-playlists/hls/6f8efff9-defa-4728-920f-918177ddf171/a08b82c8-5116-4d35-927e-2c668c0d0a5e-master.m3u8https://video.igem.org/videos/embed/eLZynuheLg2KrzY7RNfTBF5350352024-12-04T17:06:53.593ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3RegmMnk9dpiVyLtP7gR71https://video.igem.org/lazy-static/thumbnails/be6867e1-6897-44e7-a8e0-3401e93fbcb1.jpgA Hardware Prototype Demo of Multiple biomarkers detection for Households useThroughout the summer, we have designed a household device that is capable of monitoring and detecting three biomarkers in the user's blood simultaneously. The designing process included heavy, intense loads of CADing, rendering, engineering, as well as processes. Through this live stage presentation, we wish to showcase what we have achieved so far and blow people's minds!https://static.igem.org/peertube/streaming-playlists/hls/1711e592-e20e-4bff-8591-3e8a3f4f4918/81332f93-9f04-4652-801c-4ae7b72fd500-master.m3u8https://video.igem.org/videos/embed/3RegmMnk9dpiVyLtP7gR71789032024-12-03T08:23:18.699ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/anykdd2Fg92TyWnVbprxKyhttps://video.igem.org/lazy-static/thumbnails/57eb202f-d8d1-4303-8f68-efed26f45ddf.jpgSTAR: Synthesis of Theanine for Anxiety ReliefProject STAR is targeted at anxiety among high school students and the global population by harnessing L-theanine, a naturally occurring amino acid in tea leaves. To overcome the limitations in traditional synthesis methods, we developed a de novo synthetic biology approach to produce L-theanine in E. coli BL21. We've designed a pathway involving five enzymes to synthesize L-theanine starting from glucose with an ATP regeneration system for efficiency. We investigated the implementation of the product as candies, and explored delivery methods. We expanded the scope of our care via community events of promoting anxiety awareness.https://static.igem.org/peertube/streaming-playlists/hls/4be4cabb-ddba-4679-bfb1-e6d4582cc592/188256cc-9b34-4542-999d-194466fbef81-master.m3u8https://video.igem.org/videos/embed/anykdd2Fg92TyWnVbprxKy6240122024-12-04T17:20:32.737ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/kpkD4QGPMfiUQt6yeVAgUzhttps://video.igem.org/lazy-static/thumbnails/adbd48ba-03d7-4ede-a5e5-7260bf95bcc7.jpgEat Methane!Greenhouse gasses play a significant role in climate change, with carbon dioxide contributing to 79.7% of total emissions. However, while CO2 is abundant, it is not the most potent greenhouse gas. Methane has 86 times the warming impact of CO2 over 20 years yet comprising only 11.1% of emissions. Its severe environmental impact contributes to the formation of ground-level ozone, which damages crops and poses significant health risks. Thus, reducing methane emissions offers a more effective climate change strategy than focusing solely on CO2. Landfills are major methane sources, contributing to 17.1% of emissions in the United States. Our project aims to address this issue by genetically modifying the soil bacterium Bacillus subtilis to produce enzymes that convert methane into compounds that boost soil fertility. This innovative approach reduces methane emissions while enhancing soil health.https://static.igem.org/peertube/streaming-playlists/hls/9d1fd821-4e73-4105-ad68-13b4ded44745/ca29f42d-a242-436b-ac54-65ec0e693631-master.m3u8https://video.igem.org/videos/embed/kpkD4QGPMfiUQt6yeVAgUz654072024-12-04T17:12:41.386ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/mK2gQL4MrBvGFTCerA2yE7https://video.igem.org/lazy-static/thumbnails/c1f369a2-c981-4ece-aad7-209530cb5bc3.jpgMoskilla - A novel ATSB as a vector control method for mosquito-borne diseasesMosquitoes transmit various infectious diseases, such as malaria and dengue fever, and current control measures are often inadequate. While attractive targeted sugar baits (ATSBs) have shown promise, they are not sufficiently appealing to blood-feeding mosquitoes, the main disease vectors. AIS-China introduces Moskilla, an optimized ATSB enhancing attractiveness by incorporating HMBPP-producing E. coli and RNAi-based targeted shRNA mosquitocides. The engineered E. coli overproduces HMBPP through an enhanced MEP pathway and the use of sRNAs to downregulate the expression of downstream enzyme IspH, yielding 0.45 mM HMBPP, while shRNAs, produced in yeast, achieved a 100% mortality rate in mosquitoes within three days. To ensure biosafety, a kill switch using the ΦX174-E gene was developed for E. coli, enabling control outside laboratory settings. Moskilla, supported by a hardware device to limit GMOs use, represents an eco-friendly and effective solution for preventing and controlling mosquito-borne diseases, making it a promising innovation for our startup.https://static.igem.org/peertube/streaming-playlists/hls/a7f88a36-8ded-4866-bfec-0d9c24d62c4a/a120e53f-ac14-493c-b728-01adf806b488-master.m3u8https://video.igem.org/videos/embed/mK2gQL4MrBvGFTCerA2yE75300672024-12-03T08:23:28.581ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ioQZXRtWTX53K2MUKaJosrhttps://video.igem.org/lazy-static/thumbnails/c3909113-7efb-4e8b-a2e6-b955c167b563.jpgExperience Sharing: Failing and PrevailingIn this Live Stage Talk, we will discuss our collaborative journey toward achieving our project goals, highlighting both the challenges and successes we encountered along the way. Each of us faced setbacks and triumphs, both individually and as a team, which provided us with valuable insights and lessons. We aim to share these experiences with the iGEM community, hoping to contribute to the collective knowledge and the betterment of society.https://static.igem.org/peertube/streaming-playlists/hls/8cdbeac6-5fba-4fae-aef9-b57c96565d95/aab83392-1a79-4e7f-9253-902a177715cc-master.m3u8https://video.igem.org/videos/embed/ioQZXRtWTX53K2MUKaJosr6710152024-12-04T17:13:07.294ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/hieUKmfkPCN7xv4Uu1kKJ9https://video.igem.org/lazy-static/thumbnails/9529b163-752d-4cb3-b987-430baa3f239e.jpgAn in vivo SARS-CoV-2 nsp5 inhibitor screening platformThe COVID pandemic has very serious consequences, killing more than 7 million people worldwide since its initiation in 2019. Despite the worldwide efforts leading to effective control of the pandemic, the continuous emergence of viral variants has necessitated the ongoing development of SARS-CoV-2 inhibitors. The main protease nsp5 plays a major role in the virus’s life cycle, and also serves as an important drug target for the virus. Our project primarily aims to develop an efficient and reliable in vivo nsp5 inhibitor screening system based on FlipGFP. Additionally, we also desire to investigate the possibility of using nsp5, a sequence-specific protease, as a tool enzyme for removing recombinant tags during protein purificationhttps://static.igem.org/peertube/streaming-playlists/hls/83fa6f44-ed67-41e8-b400-35152f66dc90/5730819e-5291-4cd8-b02c-9231169897c9-master.m3u8https://video.igem.org/videos/embed/hieUKmfkPCN7xv4Uu1kKJ9706062024-12-04T17:14:42.702ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pmEzYsD34M76BwFD1yJNnnhttps://video.igem.org/lazy-static/thumbnails/e1ded27b-bfe5-4ee3-b387-8d813826b039.jpgSHIELD: A New Generation of Antimicrobials to Combat ResistanceThe World Health Organization has declared antimicrobial resistance (AMR) as the biggest global public health threat of the 21st century. AMR occurs when microorganisms evolve to resist antibiotics, rendering traditional treatments ineffective– a process exacerbated by the current misuse of antibiotics in agriculture and healthcare. To combat AMR, Lambert iGEM created SHIELD: a versatile toolbox for developing novel antimicrobials that combat antibiotic-resistant diseases. SHIELD uses the CRISPR-interference system to silence critical genes in target organisms, alongside a toehold biosensor to measure the extent of gene silencing. We also developed SWORD: a machine learning software tool to optimize toehold design, and LabPilot: a frugal liquid handler to automate experimentation. SHIELD enables researchers to rapidly develop multiple antimicrobials for a single disease by targeting several genes, circumventing the emergence of resistance in a single gene without compromising overall treatment effectiveness, thus SHIELD empowers researchers to outpace antibiotic resistance.https://static.igem.org/peertube/streaming-playlists/hls/bd24d809-5513-4608-9843-c38f4db0ee9f/0878a1cf-25f1-460f-9d0e-537508be4cef-master.m3u8https://video.igem.org/videos/embed/pmEzYsD34M76BwFD1yJNnn6090282024-12-03T08:23:42.708ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/4iCasopsP5xYzbVFaXeUcUhttps://video.igem.org/lazy-static/thumbnails/27db1251-dcfd-4d48-9917-56c63c11b5e6.jpgWhy Rare Diseases Should Be Taken More Seriously？Presentation on the current situation of people with rare diseases, the reasons why they should be taken more seriously, and what we can do to make that change and support.https://static.igem.org/peertube/streaming-playlists/hls/1ac158a8-75e7-43c4-ad9c-7abe4160ef5a/304da5f9-79bb-45ea-8334-71554702db10-master.m3u8https://video.igem.org/videos/embed/4iCasopsP5xYzbVFaXeUcU501072024-12-03T08:23:49.820ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/5RdViEFtcvM1XQi9RrAgfrhttps://video.igem.org/lazy-static/thumbnails/9757e131-9369-4fab-bc5c-3eb031942de8.jpgInnovative CO2 Reduction and Sustainable PHB Bioplastic Reduction Using Synechocystis Sp.Each year, over 350 million metric tons of plastic waste pollute our planet. To address this, Korea-HS focuses on utilizing the cyanobacterium Synechocystis sp. PCC 6803 to produce polyhydroxybutyrate (PHB), a biodegradable plastic. Synechocystis naturally absorbs atmospheric CO₂, providing both a sustainable plastic alternative and contributing to climate change mitigation. We optimized PHB production through Adaptive Laboratory Evolution (ALE), selecting strains that thrive in high-pH environments, enhancing both carbon fixation and PHB synthesis. Our results show a peak PHB content of 31.3 wt% at pH 11.0, compared to 20.0 wt% at neutral pH, supported by RNA sequencing data revealing that fructose and mannose metabolism-associated genes were upregulated. Beyond the lab, Korea-HS promotes public awareness through social media, online conferences, and an Awareness Policy Framework, aiming to educate and encourage the adoption of sustainable alternatives like PHB in the fight against plastic pollution.https://static.igem.org/peertube/streaming-playlists/hls/2743f605-0739-452b-bde1-4eea6db00e61/8d4e088f-358c-43c1-a815-8d9d25ce4b2f-master.m3u8https://video.igem.org/videos/embed/5RdViEFtcvM1XQi9RrAgfr6050222024-12-04T17:12:22.521ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nYyjWv18HjyAx89Ycq5NFPhttps://video.igem.org/lazy-static/thumbnails/09510fa4-c841-4616-8b01-d2630832e281.jpgKnockout! - City of London says no to N2OThe City of London team will present the theoretical and lab work that they have been doing to help mitigate the effects of nitrous oxide - a prominent greenhouse gas. We will cover the harms posed by N2O but also the promising synthetic biology that we have been working on.https://static.igem.org/peertube/streaming-playlists/hls/b1f57c23-cfd9-429b-a0b2-cbef1b17fc7d/da90d8a8-e6c0-4aa5-a4b8-cb81739be7d9-master.m3u8https://video.igem.org/videos/embed/nYyjWv18HjyAx89Ycq5NFP639092024-12-04T17:11:01.806ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gd58Yn75xPysCkKDyfTjqShttps://video.igem.org/lazy-static/thumbnails/3e19c994-7200-4c2e-8776-10681c683ffd.jpgBeyond the Freeze: The Story Behind Lambert iGEM’s Custom-Built Wiki EditorThe wiki stands as the capstone of every iGEM project: where months of hard work, research, and experimentation (successful or not) coalesce. Once the wiki freezes, the year of hard work culminates. Pipelines that can not be fixed, stay broken. Wikis that are not finished, stay incomplete. iGEM has no sympathy for the dozens of sob stories that pour into Slack at 14:01 UTC. This year marks Lambert iGEM's 11th wiki freeze, and our wikis have been through it all: from our nothing short of bizarre 2013 wiki to winning best wiki in 2022. As our wiki has evolved over the past few years, so has our workflow. Hear from our wiki team and learn the story behind our custom-built open-source wiki editor that helps us overcome the chaos of wiki freeze.https://static.igem.org/peertube/streaming-playlists/hls/7b288e0f-f066-435d-90d0-dedd4d3b30c2/52511426-77a4-471b-9b8a-a3b13b0fecbd-master.m3u8https://video.igem.org/videos/embed/gd58Yn75xPysCkKDyfTjqS4350292024-12-04T17:09:01.417ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/urrmFjSVgacoKzRjQ8GbD5https://video.igem.org/lazy-static/thumbnails/a4d3b2a5-a8ca-4dbc-a862-8b542f3c79ff.jpgDengue Beeters - A novel synergy of recombinant biolarvicidal toxins, naturally-derived geosmin, ...The rise of dengue fever in recent years has become a significant issue in tropical and sub-tropical areas, inflicting serious socioeconomic and healthcare burdens. In our project, we successfully engineered 12 recombinant biolarvicidal toxins and partially reproduced a chromosome-free system. We conducted WHO standard larvicidal assay with Aedes albopictus larvae and proved the potency of Cyt2Ba, Xpp81Aa1 and BmK IT1. In addition, we consistently proved that 2.5 mg/ml of beetroot peel powder can significantly attract gravid female Ae. albopictus mosquitoes in oviposition assays. We integrated the synthetic biology-based product with beetroot peel powder and developed Taiwan's first 3D-printed household-use sticky ovitrap. We also developed an OpenCv mosquito egg analyzer to automatically analyze mosquito eggs, helping field entomologists and scientists in dengue surveillance work. Dengue Beeters is an exciting project that breaks mosquito life cycle through synthetic biology and contributes to the end of dengue fever disease by 2030.https://static.igem.org/peertube/streaming-playlists/hls/e64d1a6d-dde9-4b15-9459-d81970a7fd7e/0493afd8-11b8-4977-980b-f8ae4bd4e3d9-master.m3u8https://video.igem.org/videos/embed/urrmFjSVgacoKzRjQ8GbD556801672024-12-03T08:24:08.989ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/oXz8jBD2DwCXS3Kgf22ToChttps://video.igem.org/lazy-static/thumbnails/bcbfd724-5f54-4476-9aa5-67b9fbf712b6.jpgMetaboMender: a comprehensive probiotic platform for treating gut dysbiosisThe human gut microbiota contains trillions of microorganisms, and it influences the human health from various aspects. Gut dysbiosis is caused when the balance of gut microbiota is disrupted, leading to disease conditions. In China, gut dieases and dysbiosis are becoming more prevalent, meaning the need for treatment. MetaboMender is designated to detect, monitor, and regulate the concentration of specific gut metabolites through a food input in order to cure and prevent gut dysbiosis. We designed two programmable genetic systems for beneficial and harmful metabolites. Both system use deoxycholic acid as an indicator of food intake to trigger the subsequent responses. We focused on butyrate and indole-3-acetic acid (IAA) as the beneficial and harmful metabolites, respectively. When butyrate level is low, our platform will supplement butyrate by expressing butyrate-producing enzymes. On the other hand, when IAA level is too high, our platform will express IAA-degrading enzymes to reduce excessive IAA.https://static.igem.org/peertube/streaming-playlists/hls/b9eb5f64-af4f-4a13-8e32-d7baf594cc84/bd1a84ef-0eba-42f5-b3de-6671bb785ea7-master.m3u8https://video.igem.org/videos/embed/oXz8jBD2DwCXS3Kgf22ToC6340292024-12-04T17:18:26.489ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/uo4i6SjKhty2VzGVfMmG9Thttps://video.igem.org/lazy-static/thumbnails/a3fcd1e3-43b3-4d7c-b611-eb4e25774b9b.jpgThe harm of heavy metal and current detecting methodsIntroduce different types of harm caused by heavy metals and current methods of detecting heavy metals in natural water.https://static.igem.org/peertube/streaming-playlists/hls/e5d446a4-1e06-446d-814d-cb6a96c09b93/c878ef77-2804-4682-966a-9db5a858d1ed-master.m3u8https://video.igem.org/videos/embed/uo4i6SjKhty2VzGVfMmG9T484042024-12-04T17:51:47.618ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/eidKHgSfpt5FkgnBZ4Cj87https://video.igem.org/lazy-static/thumbnails/beb63e12-052a-404f-8b1e-2514c1eaadf3.jpgDHA production using engineered L. LactisDHA(Docosahexaenoic acid) is a fatty acid which is important for brain and eye health in humans, which has made in a very popular supplement in recent years. It is usually in the form of fish oil, which not only makes it expensive to produce, but could also cause damage to aquatic ecosystems. Thus, our project tries to engineer L. Lactis bacteria to produce DHA.https://static.igem.org/peertube/streaming-playlists/hls/6bae4e6f-3f6e-4776-8839-1d0e7a46f3d4/361c0dba-f169-49e1-b11a-5de1f8f777ca-master.m3u8https://video.igem.org/videos/embed/eidKHgSfpt5FkgnBZ4Cj87615022024-12-03T08:24:27.658ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/1UVqAXhoeNzyUCM5ztwMD8https://video.igem.org/lazy-static/thumbnails/3cea170b-ccc4-4bd4-a221-d34de0295547.jpgThe Biology Behind HydroLinkTo formulate our biology plan, we conducted research on hydrogels and the way to implement bacteria into hydrogels. We reviewed cross linking and emulsion polymerization and decided on polymerization of acrylamide for our gel. We also researched bacteriocins and are using LSX01, nisin, and lysostaphin. We used benchling’s assembly functions to create our primers. Our biology research is based on the quorum sensing system used by S. Aureus, a dangerous strain of MRSA bacteria. We are implementing a gene circuit into L. Reuteri that will respond to binding of AIP to a cell surface receptor (agr c) and trigger a gene circuit where bacteriocins are produced to kill S. Aureus and AIP is also released into the environment. This proof of concept can later be implemented in S. Aureus.https://static.igem.org/peertube/streaming-playlists/hls/07639990-9c9c-4604-a898-24d9a7f4f83d/fbb3564b-d8c1-4ca1-b0b0-82ffc71f4b0c-master.m3u8https://video.igem.org/videos/embed/1UVqAXhoeNzyUCM5ztwMD8674092024-12-04T17:16:06.484ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ntp11afXbuu8Gv7z9q1ZhMhttps://video.igem.org/lazy-static/thumbnails/e11211d0-3e98-4100-80ed-ab8ede9b3dfd.jpgLactochoccus: I Can’t Believe It’s Not ChocolateMore than 70% of the world’s cocoa production originates from Cote d'Ivoire and Ghana. The process involves clearing out large sections of African rainforest for cocoa plantations. Furthermore, cocoa farming generally involves child and slave labor. To combat this, we are creating a synthetically produced chocolate flavoring that will eliminate the need for natural cocoa farming. We chose four of the most prominent flavors in chocolate (theobromine, pyrazine, furaneol and phenylethylamine) and worked to produce them in Lactococcus bacteria. To do this, we started by cloning the genes onto a plasmid, inserting them into the Lactococcus, inducing gene expression with the compound nisin. To evaluate our results, we will use GC-MS to measure the levels of each compound present in our bacteria. Furthermore, we interviewed and incorporated feedback from various experts and nonprofits into our project, which allowed us to have a more comprehensive understanding of stakeholder needs and perspectives.https://static.igem.org/peertube/streaming-playlists/hls/ade32afd-a203-4fcd-b378-dc2ec68ead91/e9a5a0f3-e36d-405a-a2c4-0537a405d645-master.m3u8https://video.igem.org/videos/embed/ntp11afXbuu8Gv7z9q1ZhM604072024-12-04T18:28:52.995ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rJZt2nEJWcY4EHHMaagV1Hhttps://video.igem.org/lazy-static/thumbnails/b738ad71-3a8b-42ef-bcdb-80c46979f975.jpgAI-Driven Enzyme Engineering for PFAS Degradation Using Protein LLM, Expression Classifier, and C...PFAS, or "forever chemicals," are toxic compounds linked to cancers, infertility, and vaccine resistance at concentrations below 1 ppt. The IEA iGEM team is employing AI to design enzymes that break down PFAS through a four-step process: 1. Using protein large language models (pLLMs) and a new enzyme classifier to generate novel PFAS-degrading enzymes. 2. Computationally validating the predicted catalytic activity of these enzymes against PFAS. 3. Assessing the expressibility of the enzymes in a cell-free system to ensure feasibility for lab testing, and as input for a expression classifier that we design. 4. Expressing enzymes successfully, and then sent to a specialized lab to confirm PFAS degradation activity. By combining AI-driven protein design with experimental validation, our approach seeks to provide an efficient and cost-effective solution to combat the environmental and health risks posed by PFAS.https://static.igem.org/peertube/streaming-playlists/hls/d0751e95-e416-4396-8a33-f81458cde1e5/9aa449db-9fb3-4956-ab84-ed83670be68a-master.m3u8https://video.igem.org/videos/embed/rJZt2nEJWcY4EHHMaagV1H4770302024-12-04T17:12:52.366ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/7HQsgQSUz7yBKDdtob2aQqhttps://video.igem.org/lazy-static/thumbnails/20baf203-75e3-4231-908b-b413a7f639ec.jpgEnhancing Bacterial Cellulose with Modular Modification Systems: A New Era in Material InnovationExplore our groundbreaking approach to improving Bacterial Cellulose (BC) with a modular system. BC, known for its versatility, is enhanced by our innovative design that integrates proteins to expand its potential applications in biomedicine, cosmetics, and more. Discover how our three-module system—comprising BC, a scaffold with Curlis fiber and SpyTag, and a fusion protein with SpyCatcher—addresses compatibility issues and opens the door to exciting products like antimicrobial band-aids. Learn about our future plans for high-throughput screening and continuous improvements to create versatile BC-based solutions.https://static.igem.org/peertube/streaming-playlists/hls/366e2fce-6560-4982-92c0-3960d8490f84/4d0d4a68-17ca-414c-8d82-cd454f891fe3-master.m3u8https://video.igem.org/videos/embed/7HQsgQSUz7yBKDdtob2aQq617032024-12-04T17:17:02.286ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/i4rqNZNELhUV9JufnYoUW5https://video.igem.org/lazy-static/thumbnails/2f24706b-27a1-4961-a1cb-84329a9effe4.jpgEnhancing Animal Feed with Surface-Displayed Xylanase on Pichia pastorisOur project aims to improve animal feed digestibility and nutritional efficiency by using Pichia pastoris to surface-display thermostable xylanase from Streptomyces thermovulgaris, addressing SDGs 2 (Zero Hunger) and 12 (Responsible Consumption and Production). Utilizing the GTH1 promoter, we expressed xylanase with two anchor proteins, GCW61 and Pir1. Comparative analysis using DNS assays and 3D modeling techniques (I-TASSER, YASARA with FoldX, and PyMOL) identified GCW61 as the more effective anchor. Xylanase-GCW61 showed significant activity and stability, while Xylanase-Pir1 exhibited measurable but lower activity. We conducted investigations on optimal enzyme activity conditions, resistance to gastric proteases, and feed processing stability. Our findings highlight the potential for this method to enhance livestock feed efficiency safely and cost-effectively.https://static.igem.org/peertube/streaming-playlists/hls/8a26424a-472e-4cb0-ba19-ae3b5cb78420/df0b7cd9-e212-4060-b1a4-fce68c29f1ca-master.m3u8https://video.igem.org/videos/embed/i4rqNZNELhUV9JufnYoUW5590012024-12-03T08:24:49.977ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/iTQmXTAiVPgZ8yBk22PDnihttps://video.igem.org/lazy-static/thumbnails/9532bf61-b42e-4b61-b197-b5b478b497b6.jpgA Dual-Plasmid Biosensor for Copper Ion Detection Using Synthetic BiologyCopper ion contamination is an increasing threat in China, affecting food safety and agriculture. In response, we developed a dual-plasmid biosensor using synthetic biology to detect copper ions. Our system employs the E. coli endogenous copper sensor CueR to regulate a signal plasmid. Upon binding with copper, CueR activates the pCopA promoter, expressing a fluorescent protein, mVenus, in proportion to copper concentration. Additionally, we fine-tuned the system using a promoter library for CueR overexpression. This portable, low-cost biosensor offers a reliable solution for monitoring copper pollution, ensuring safer food and water for consumers.https://static.igem.org/peertube/streaming-playlists/hls/90e817e1-aa6d-4ecc-88d0-fcf06386834f/fac9a4ee-8360-4264-ab64-a0699021e6d3-master.m3u8https://video.igem.org/videos/embed/iTQmXTAiVPgZ8yBk22PDni579042024-12-04T17:19:29.851ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vCQoe9NZ3AkGZkAtdTAqVFhttps://video.igem.org/lazy-static/thumbnails/ed257752-531b-4bc9-bab1-e08ddefd4162.jpgHerbal Code——Construction of a biosynthetic pathway for Salvia divinorum phenolic acids in model ...Danshen, the root of Salvia miltiorrhiza, is widely recognized as an effective medicine for treating cardiovascular and cerebrovascular diseases, but there are many limitations in the extraction of its active components. To overcome these limitations, our project employs synthetic biology techniques to design two synthetic pathways. Utilizing endogenously produced 4-coumaroyl-CoA in tobacco as the acyl donor, we introduce key enzymes and precursor substances exogenously to synthesize rosmarinic acid. In pathway one, we introduce danshensu, SmRAS10, and SmCYP98A14; in pathway two, we introduce 4-hydroxyphenyllactate, SmRAS10, SmCYP98A14, and SmCYP98A75. LC-MS/MS results indicate that both pathways are capable of synthesizing rosmarinic acid in tobacco leaves. Moving forward, the project will focus on further optimizing production efficiency. This not only provides a new strategy for the sustainable development of Salvia miltiorrhiza but also suggests that this method can be applied to the production of other medicinal components.https://static.igem.org/peertube/streaming-playlists/hls/effd9d34-3deb-4ab2-b00a-7def0a1f8149/536cd105-2fa3-457a-ad7f-34ef439aad0a-master.m3u8https://video.igem.org/videos/embed/vCQoe9NZ3AkGZkAtdTAqVF568042024-12-03T08:24:54.738ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/phvW15wJHcB2BgpCGeT4PGhttps://video.igem.org/lazy-static/thumbnails/67be37e4-dbf7-4d08-bfb0-5cb6bb1bf610.jpgScaling the Steep Summit of IGEM: Overcoming Challenges, Achieving HeightsAs high school students, it can be said that we had nothing but passion and love for biology at the beginning of the project. But when we enter the laboratory for the first time, we experience the daily life of a researcher; When we run an experiment independently for the first time; After many retries, we finally create the biosensor that we had only imagined when we sat together half a year ago. When we used biosensors to screen some small molecule compounds inhibiting breast cancer (drug screening), we experienced the magic of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/bc908900-dd59-4501-b2ed-c659a661ee82/6c7e0463-6fe5-4f80-95cb-744d875712c6-master.m3u8https://video.igem.org/videos/embed/phvW15wJHcB2BgpCGeT4PG4740122024-12-04T17:31:36.307ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/keoKJ6Gz3VPko8AFBDrJrehttps://video.igem.org/lazy-static/thumbnails/848c16d1-2f7c-41d6-9f59-e49b8d51871a.jpgThe Integrated Human Practices of HKSSCA short recap of our team's and a review and reflection of this year's human practice.https://static.igem.org/peertube/streaming-playlists/hls/9bbc537d-9532-46de-899a-003fc643a377/cf51bf1c-e11c-4116-83fe-79247ea911db-master.m3u8https://video.igem.org/videos/embed/keoKJ6Gz3VPko8AFBDrJre3940112024-12-04T17:10:47.680ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3etReoBG7WdMiJWK6QHBeehttps://video.igem.org/lazy-static/thumbnails/fd054593-debd-46cd-9211-83817e7fe026.jpgMerging Old and New: Treating non-small cell lung cancer by Cordyceps and AI-designed peptidesWe aim to produce two types of engineered proteins to target Non-Small Cell Lung Cancer (NSCLC) and check for any combination effects of those peptides with cisplatin, a common chemotherapy drug. Four peptides from Cordyceps militaris, a well‐known dietary therapy in anticancer treatment, were selected to test their effectiveness to lung cancer. Also, we modified those peptides by adding linker and cell-penetrating peptide. Furthermore, we used RFdiffusion and ProteinMPNN-AI to generate peptide sequences by targeting PDEδ, which regulates KRAS signaling, a common gene mutation in cancerous cells. Then, those peptides were expressed by BL21. Finally, A549, a lung cancer cell line, was used to test the effectiveness of those peptides and check for whether two groups of peptides have any combination effects with cisplatin. If there are combination effects, lower concentration of cisplatin can be used, so that it can reduce the side effects of it.https://static.igem.org/peertube/streaming-playlists/hls/12141bd8-3296-4c42-8f4d-1073f7559a33/35beb208-36f2-4346-809f-2643f625544d-master.m3u8https://video.igem.org/videos/embed/3etReoBG7WdMiJWK6QHBee6190162024-12-03T08:25:21.784ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/45i1VY8QV4jMAqWkYWf3YUhttps://video.igem.org/lazy-static/thumbnails/a015607e-bec9-497e-bbbf-78166ea52580.jpgiGEM in High School: Directions We Educators Must PursueThis presentation is targeted at high school educators involved in iGEM. How should we teach and facilitate iGEM? How can we maximize students' learning experience through iGEM? Through an interactive presentation, educators will be introduced to iGEM coaching and teaching practices.https://static.igem.org/peertube/streaming-playlists/hls/18e4e0a8-5b2d-4363-9660-c0bc6fad9f7c/cd5abf3f-fcd6-4cf2-af39-03e0d55dcd78-master.m3u8https://video.igem.org/videos/embed/45i1VY8QV4jMAqWkYWf3YU6250142024-12-04T18:12:36.166ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/dY2ypQ1ZQRZP3zx6QqRwF3https://video.igem.org/lazy-static/thumbnails/a2e90792-5746-4cb1-a84a-6304290e09d2.jpgProteosnail: Turning Golden Apple Snails from Pests to Helpers & Keeping up with Climate ChangeFaced with the growing challenges of climate change, it’s becoming increasingly important to improve the resilience of crops to extreme temperatures to secure global agriculture. Our project seeks to introduce cold shock proteins (OtsA and OtsB) and heat shock protein (HSP70) from the golden apple snail into plants using synthetic biology techniques. By initially using E. coli as the delivery vector, and later transitioning to Agrobacterium, we aim to enhance plants' ability to tolerate both cold and heat stress. This strategy is inspired by existing research on cross-kingdom gene transfer, which uses bacterial vectors to introduce stress-resistance genes from animals into plants. With this innovative approach, we hope to bolster crop survival in the face of increasingly unpredictable environmental conditionshttps://static.igem.org/peertube/streaming-playlists/hls/69004693-8e24-45a1-b6ab-b0b8a11e29f8/76650e1b-dfcd-4fee-ab38-d86797719e8b-master.m3u8https://video.igem.org/videos/embed/dY2ypQ1ZQRZP3zx6QqRwF3638082024-12-03T08:25:22.135ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/stQCUZjDgRwSchu2LZzq9ghttps://video.igem.org/lazy-static/thumbnails/25dd17a0-9c2e-408f-bfe8-e0d111d6088e.jpgiGEM as a platform for EducationiGEM provides a very meaningful platform for us, not only for education part, but also include everything that we have done e.g. Lab work, organisation.....https://static.igem.org/peertube/streaming-playlists/hls/d670a904-4847-4c06-9f82-ade24303beb7/c30f837e-c53e-402c-9851-980a1a16bfee-master.m3u8https://video.igem.org/videos/embed/stQCUZjDgRwSchu2LZzq9g6170192024-12-03T08:25:27.768ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/7dtrRd5aUNN1XFqqPNdxrxhttps://video.igem.org/lazy-static/thumbnails/aebd2479-1883-4060-95a9-3bab68046f66.jpgMARINE- Microplastic cell degradation factory based on phage display technologyThe increasing prevalence of plastic pollution, particularly marine litter, poses a significant environmental challenge. As highlighted, an estimated 5.25 trillion plastic particles, weighing over 268,000 tons, are estimated to be present in the world's oceans. Microplastics, which are particularly problematic due to their small size and difficulty to degrade, can induce a range of toxic effects, including oxidative stress and metabolic disorders in marine organisms. The innovative approach of employing genetically engineered E. coli BL21 (DE3) expressing surface-displayed PETase and TfCa encapsulated within the BASH device represents a promising strategy to tackle the growing issue of microplastic pollution in marine environments. By combining advanced genetic engineering techniques with a robust encapsulation system, this project has the potential to enable practical and sustainable solutions for plastic waste degradation. The proposed framework aims to provide an effective biological method for degrading harmful microplastics.https://static.igem.org/peertube/streaming-playlists/hls/3254abd3-20f9-4d01-a449-b62617766745/a78e89d0-f683-4bf1-ac79-e631dde815aa-master.m3u8https://video.igem.org/videos/embed/7dtrRd5aUNN1XFqqPNdxrx634042024-12-03T08:25:31.759ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/hY5yLG8ovtJ33vkciX1VALhttps://video.igem.org/lazy-static/thumbnails/46d87b41-68dd-432c-b416-4e3c47b7b59c.jpgEcoSweet: Biosynthesized Allose - Sweet & SustainableFaced with the problem of diabetes, which is skyrocketing globally due to excessive intake of sucrose, we would like to use a natural sugar substitute, allose, as a healthier alternative to sucrose. However, the cost of natural extraction and production methods for allose remains high, and to address this challenge, our team developed an allose biosensor based on alsR transcriptional regulators. The sensor has been rigorously tested and demonstrated specificity and high efficiency to convert allose production into a real-time fluorescence response. Meanwhile, we have further optimized the sensor performance by using computational prediction and molecular docking techniques, combined with random mutagenesis, which lays a solid foundation for achieving low-cost and large-scale microbial synthesis of allose.https://static.igem.org/peertube/streaming-playlists/hls/8966aed6-ea87-4f2b-85c3-6ca9acf4a3a4/58753f26-6d61-4fea-99c9-1bf2e46bd610-master.m3u8https://video.igem.org/videos/embed/hY5yLG8ovtJ33vkciX1VAL617032024-12-04T19:09:59.768ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/74Ct38XLYrkGCBcGDMmuXXhttps://video.igem.org/lazy-static/thumbnails/8adfeb85-8f11-44b7-9146-cf99f9ea72fd.jpgHigh School Teams in iGEM: Experiences SharingOver the past 20 years, iGEM has fostered a dynamic and innovative synthetic biology community and industry. The iGEM Grand Jamboree serves as a global stage where the future of synthetic biology is unveiled annually. This year, more than 400 multidisciplinary teams from over 60 countries will present their projects, addressing local and global challenges through synthetic biology. High school teams are important participants in iGEM competition and the number of high school teams is increasing dramatically. Participating in the iGEM Competition poses unique challenges for high schools, but also provides special opportunities to access synthetic biology and learn skills. This session will gather PIs and Instructors to share their experiences and stories of making the iGEM experience successful for high school teams. https://static.igem.org/peertube/streaming-playlists/hls/3118894d-3f31-4af1-adf2-1710b0f1542d/d49bc07e-38b2-4deb-bea1-bf7537119ce6-master.m3u8https://video.igem.org/videos/embed/74Ct38XLYrkGCBcGDMmuXX1851092024-12-03T23:52:26.056ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/nBXmx8Umf8e5ffhNNX37M5https://video.igem.org/lazy-static/thumbnails/51d14164-3532-45ee-ae0d-8c46ac73767a.jpgAlgal Blooms: The Challenges They Present and How we Address ThemWe constructed a light-controlled growth system using E-coli and checked its feasibility. After that, we transplanted the system into an algal solubilizing bacterium, Bacillus subtilis to solve algal blooms. We will introduce the current solutions with their benefits and drawbacks, all the while connecting to our product's benefits.https://static.igem.org/peertube/streaming-playlists/hls/af150e95-f51d-4f3a-afa5-490e881fe80e/7e475f87-00c2-4443-8ab2-efe024642cb4-master.m3u8https://video.igem.org/videos/embed/nBXmx8Umf8e5ffhNNX37M5653042024-12-03T08:26:21.733ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bvB37qFLjAJy8nvv5gEWQAhttps://video.igem.org/lazy-static/thumbnails/b293f810-3467-4dce-adf3-373b2aa6a156.jpgContaining chemical tablet is helpful in repairing damaged esophageal epithelial cells after hot potEsophageal squamous cell carcinoma (ESCC) is a serious health concern, especially for people who enjoy hot pot. In our previous study, by analyzing blood samples and sophageal cancer tissue from clinical ESCC patients, we screened out sensitive proteins related with fatty acid metabolism, which were necessary in repairing esophageal epithelial cells injury, the level of functional protein played key roles in inhibiting inflammation and malignant lesions in esophageal tissues. Thus, in our present project, we firstly designed exogenous plasmid and constructed a high-level expression system in Escherichia coli, to express high-level of functional protein. Then the protein nanoparticles were prepared with oleanolic acid. Through constructing esophageal epithelial cells injury model, the relieving effects of MFG-E8 protein was evaluated in vitro. By this method, MFG-E8 protein is eventually integrated into containing tablets, which effectively alleviates esophageal epithelial cells damages caused by hot and spicy stimuli, and reduces the incidence of ESCC.https://static.igem.org/peertube/streaming-playlists/hls/551d8c41-7b45-4711-a48a-c0f2ac0a0dba/8b77fe6d-e41a-4048-b2ae-876da8af3493-master.m3u8https://video.igem.org/videos/embed/bvB37qFLjAJy8nvv5gEWQA441022024-12-04T17:06:35.747ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/k8ssushEPi9CCQYNMDvjyKhttps://video.igem.org/lazy-static/thumbnails/8f239d63-3e03-4ba8-8fa7-c75a5e0347e7.jpgKetone Esters - the solution for burnout?In the restless city, office lights stay lit from dusk till dawn. As fatigue washes over you, you drag yourself yo finish your task. And as you leave the office to return to the sanctuary of your bed, you know that tomorrow will be a groundhog cycle of the same day. In Shanghai, and other bustling cities around the world, workers are often subjected to heavily extended hours of jobs to stay competitive within the labour market. This results in heavy worker fatigue and a scavenge for efficient energy sources. These resources often take the form of food orders, an often dirty and un-healthy choice. This problem can be remedied with Ketone Esters—our product—a healthy supplement that initiates fatty acid oxidation for energy metabolism instead of carbohydrate catabolism.https://static.igem.org/peertube/streaming-playlists/hls/9ae8253d-9dd0-4956-ad3b-72e99e987e6b/d8adaeed-f87b-4fcf-8240-b4058a7d80d5-master.m3u8https://video.igem.org/videos/embed/k8ssushEPi9CCQYNMDvjyK612052024-12-03T08:26:32.412ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/u2d6dbkJVDKLaua5mMUKKqhttps://video.igem.org/lazy-static/thumbnails/28fc68c7-d239-49cf-bf71-8c7c2ce69e1d.jpgIlluminating the brain: Discovery of cyclic N-aminoluciferins (cyL) for brain tumor bioluminescen...Brain tumors can cause neurological impairments and death, stressing the necessity for ongoing research and enhanced therapies. Bioluminescence imaging, a non-invasive imaging technique, is employed in tumor research, gene expression, drug screening, and other fields. However, substrates like D-luciferin and aminoluciferin have short red-light emission (tissue-penetrating), insufficient in vivo bioluminescence duration, and inadequate blood-brain barrier permeability, resulting in bioluminescence imaging for brain tumors challenging. This study develops cyclic N-aminoluciferins (cyL) as firefly luciferase substrates with improved bioluminescence via rational design and organic synthesis. Due to its red-shifted bioluminescent emission, prolonged bioluminescence duration and enhanced blood-brain barrier penetration, 7-cyL is a promising candidate for bioluminescence imaging of brain tumors after biological evaluations. In summary, our approach allows direct brain tumor progression imaging and fills a long-standing gap in real animal imaging. We believe that these cyL compounds will improve bioluminescence imaging and help us understand brain tumor growth and treatment.https://static.igem.org/peertube/streaming-playlists/hls/e2eb13ad-c69c-470f-8e2b-697e203f80d2/31096162-4b73-474f-9e0b-111a9e2d037a-master.m3u8https://video.igem.org/videos/embed/u2d6dbkJVDKLaua5mMUKKq710032024-12-03T08:26:33.587ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/oimf4LXjDDrkUuqcG42e8Bhttps://video.igem.org/lazy-static/thumbnails/2564a9cf-2435-46da-bf25-3a03de21518d.jpgColi BondOur project, "Coli Bond," explores an innovative approach to information security by leveraging genetically engineered E. coli bacteria. We developed a method to encode data within DNA sequences, disguising the information as natural protein sequences to evade detection. To enhance security, we designed a multi-layered system that ensures bacterial strains only grow under specific conditions and includes a self-destruction mechanism triggered by elevated temperatures. This prevents unauthorized access and maintains data integrity. Additionally, our project addresses the challenges of encoding complex logographic languages like Chinese by integrating unique input methods. Our work demonstrates a promising application of synthetic biology in the field of information security, combining advanced genetic engineering with practical data protection strategies.https://static.igem.org/peertube/streaming-playlists/hls/b4952b63-febc-4669-b7e2-820bfbed97a5/4fac22e3-6dff-4b77-8824-6129a9baa278-master.m3u8https://video.igem.org/videos/embed/oimf4LXjDDrkUuqcG42e8B610042024-12-03T08:26:39.848ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vcd5jLbqo2nh7K5cHg6M3ohttps://video.igem.org/lazy-static/thumbnails/6e2a28aa-d1dc-4c15-8c76-1e0f6cbff8f1.jpgCelluGuard: Desert Tree Survival EnhancerThe area of global desertification is expanding at a rate of 23 football fields per minute, posing a significant threat to the availability of land. Over the years, China has actively fulfilled its commitments under the United Nations Convention to Combat Desertification and has made notable progress. However, the global rate of desertification remains alarming, severely threatening ecological security and sustainable development. As a group of high school students committed to a responsible future, we have engineered Komagataeibacter xylinus to produce bacterial cellulose (BC) more efficiently. BC possesses exceptional water-retention properties, is environmentally friendly, and does not hinder the growth and development of tree roots, making it an ideal candidate as a water-retaining matrix material for afforestation in deserts. By enriching BC around the roots of tree, we aim to enhance the drought tolerance and survival rate of newly transplanted trees, thereby contributing to the mitigation of land desertification.https://static.igem.org/peertube/streaming-playlists/hls/ec69a4d0-ccb1-4ac8-99b8-f76361177af6/b553a4ab-cb30-4c9a-a59d-f31e65e89097-master.m3u8https://video.igem.org/videos/embed/vcd5jLbqo2nh7K5cHg6M3o636012024-12-03T08:26:43.951ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/oVps6ap9zqA8sEYriEVDUzhttps://video.igem.org/lazy-static/thumbnails/068515ef-1fe8-4172-af2e-1706a5a0cd82.jpgRational Construction of Saccharomyces Cerevisiae Strain for Utilization of XyloseFuel ethanol, with its high octane number and clean combustion, is a promising biofuel alternative to petrochemical energy. A sustainable approach involves cellulosic ethanol production from lignocellulosic biomass, known for its tough texture and complex structure. After pretreatment, it releases both glucose and xylose, but wild-type Saccharomyces cerevisiae, a key strain for ethanol production, cannot naturally utilize xylose. Enhancing its ability to metabolize xylose requires introducing metabolic pathways for xylose isomerization, often achieved through laboratory adaptive evolution, which can be time-consuming and may lead to unstable strain phenotypes. This study aimed to overcome these limitations by reconstructing the xylose utilization pathway in S. cerevisiae. We identified the NFS1I492N gene mutation and integrated the multi-copy xylA gene, which encodes xylose isomerase, to enable efficient xylose metabolism. This approach seeks to develop more robust S. cerevisiae strains capable of efficiently converting xylose into ethanol, contributing to more sustainable biofuel production.https://static.igem.org/peertube/streaming-playlists/hls/b99debfa-5ac5-47cb-b296-07eae729baa5/7b4e5a27-b6b6-41e5-9b91-4e84acea986e-master.m3u8https://video.igem.org/videos/embed/oVps6ap9zqA8sEYriEVDUz321062024-12-04T17:07:09.112ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/a6cP7fxjANGBu7PLzEZfJzhttps://video.igem.org/lazy-static/thumbnails/9d1cbfab-150c-444b-8bb1-1c0e7f4ea0ae.jpgWAVEPLASTWhile environmentalists in Taiwan and around the globe have been endeavoring to protect our planet, plastic pollution is still endangering humanity and nature. An estimated 19-23 million tonnes of plastic waste annually leak into aquatic ecosystems. Using biological methods, PET plastic waste can be degraded into simpler compounds, such as MHET and TPA that can be used for future industry. Our team aims to increase the viability of biological recycling by creating mutations on the PETase enzyme under inducible promoters, T7, and pGal1, 10 in E.coli and yeast, respectively.https://static.igem.org/peertube/streaming-playlists/hls/499c3f0e-bc87-44c2-9035-cf42262ed905/94d50060-0cb1-4fa8-9061-dce928791608-master.m3u8https://video.igem.org/videos/embed/a6cP7fxjANGBu7PLzEZfJz609082024-12-03T08:27:00.572ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gyhhVhD5P8qF7z5Q2Taw53https://video.igem.org/lazy-static/thumbnails/70625ef4-9e17-4dab-b59e-b7875c56cb0c.jpgPlastivorous - Promoting Sustainable Development by Reducing Microplastic PollutionMicroplastic particles are not only posing a threat to the ecosystem but also invisibly infiltrating our daily lives. In our efforts, we decided to focus on degrading microplastics using PETase. With the help of AI tools, we successfully designed and constructed sequences of PETase that efficiently degrade PET. To have a sustainable production of the enzymes, we further introduced these sequences into cyanobacteria. The cyanobacteria are then placed in bioreactors alongside rhodobacteria, creating a system capable of breaking down microplastics more effectively and sufficiently. Alongside the achievements within the lab, we also organized a range of different human practice events to support our program development and guide our experiments while conveying our core value and raising public awareness about this invisible threat.https://static.igem.org/peertube/streaming-playlists/hls/7dfaebb0-40fd-43b5-ad81-5dafba48855a/b149728a-5be7-4c01-9f55-fd0bf67de4c8-master.m3u8https://video.igem.org/videos/embed/gyhhVhD5P8qF7z5Q2Taw537200222024-12-03T08:27:01.921ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/hn5TSVKbsSxJRf2ZuQE3MZhttps://video.igem.org/lazy-static/thumbnails/6d816754-1d68-4cc7-83a9-bd8ec619ab9c.jpgBreaking Stigma of Mental DisorderSince era of immature therapies of mental disorders elapsed, stigma is becoming almost the biggest problem that hinders conducting of treatments. This speech aims to draw people’s attention to destigmatize the mental disorders and break disgrace of patients. We figure out what we can do by analyzing historical reasons of social stigma of mental illnesses and placing ourselves in patients' shoes to understand genesis of shame caused by mental disorders.https://static.igem.org/peertube/streaming-playlists/hls/8483daa2-7222-4066-bde5-d135ef240de3/cd78b11c-41c1-40ef-a1d8-28d83eb61734-master.m3u8https://video.igem.org/videos/embed/hn5TSVKbsSxJRf2ZuQE3MZ508022024-12-03T08:27:02.202ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/4AWHJtRjoeS34NfjriuJVchttps://video.igem.org/lazy-static/thumbnails/b29f30a1-a2db-4a78-8c9d-56d4abe0b67b.jpgStarting&running a truly student-driven HS federation team: navigating a crazy journey on sailWe, Grand-Tokyo, are rarely one of the few high school federation teams in the world. Yes, we do not belong to any schools nor clubs; we are simply a group of students. With no legal organizations to protect us, challenges hit our cheeks right and left. Struggle for gaining sponsors who cannot give to a personal group, or always meeting members hundreds of kilometers away online/questioning if they were alive when we lose contact. But in the end I'd have to admit. It was the best thing I've done in my life so far.https://static.igem.org/peertube/streaming-playlists/hls/1d2c6d1f-b4f8-4d94-a1f9-a6b1909e5285/70197a58-10d8-4582-b3d5-bcc506ef6a32-master.m3u8https://video.igem.org/videos/embed/4AWHJtRjoeS34NfjriuJVc5360102024-12-03T08:27:09.590ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/dsNWXABsG8EvEwVgVcV9F1https://video.igem.org/lazy-static/thumbnails/0b2b29c6-8c14-4bc5-b4f7-0fc3c76b1913.jpgOur HP works:Grow In ExplorationThe project of our team was about Aflatoxin B1, but the public’s attention was not high enough. In the design of HP, we tried to combine publicity and data collection. Since the topic of previous teams of our school was relatively common, we did not have rich experience to balance the two aspects. In addition to the questionnaire survey, we also tried to contact other relevant departments and got some feedback. We made use of the tour education lectures of several schools to give everyone a deeper understanding of the knowledge we wanted to spread as much as possible. We spent a lot of time testing our ideas, and fortunately, we got worthwhile results. HP work brings us not only the communication and contact between social groups, but also the inner growth of each of us in youth.https://static.igem.org/peertube/streaming-playlists/hls/64ebef35-0253-412f-9aac-95cfd5763e4e/890018fd-68e6-4be3-a7cb-e3b3809b872a-master.m3u8https://video.igem.org/videos/embed/dsNWXABsG8EvEwVgVcV9F1528022024-12-03T08:27:12.274ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/kS5twK2S1X6XUV8gfiVTawhttps://video.igem.org/lazy-static/thumbnails/c18a38a1-8bb7-4069-ad86-269e1c08e1e3.jpgMagical world of cucumbers: secret of how CsTBH-CsPAL allows epidermal trichome to produce flavon...In order to achieve the goal of using cucumber epidermal hairs to synthesize flavonoids, the problem that this project needs to solve is: Is it possible to modify the key gene CsTBH and flavonoid metabolism gene (PAL) of cucumber epidermal trichome. By using synthetic biology and analyzing the difference in product content, it is possible to determine the effect of the CsTBH-CsPAL system on the synthesis of flavonoids and produce more flavonoids in cucumbers.https://static.igem.org/peertube/streaming-playlists/hls/a0db94a5-1c01-4c32-86c3-5d7668504fac/b9d9e68b-c43c-4eb2-a06a-74d200d673fb-master.m3u8https://video.igem.org/videos/embed/kS5twK2S1X6XUV8gfiVTaw617062024-12-03T08:27:17.542ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nAdCR6FG775onrrXe1BjcPhttps://video.igem.org/lazy-static/thumbnails/9535f47b-2735-48fe-a1c1-661d157070c4.jpgCuraPack: A Novel Antimicrobial First Aid Kit Developed to Combat Resistant Wound Infections in WarThe global rise in wars and natural disasters increased the prevalence of wound infections. Moreover, the misuse of antibiotics and their resistance-prone mechanisms of action led to the spread of resistant pathogens that significantly increased the severity of infections, resulting in amputation or death. Current first aid kits do not possess any means of infection prevention other than resistant-prone antibiotic ointments. However, defensins, a family of antimicrobial peptides, possess antimicrobial activity while having lower risks of resistance due to their unique mechanisms of action. This year, we engineered a collection of fusion proteins capable of forming antimicrobial coatings on first aid kit items by attaching domains that could bind to a wide range of first-aid materials to defensins and developing an innovative release mechanism using the SUMO tag. We envision our resistance-free antimicrobial CuraPack to provide protection against infections in diverse scenarios and propagate first aid knowledge throughout the world.https://static.igem.org/peertube/streaming-playlists/hls/aed6fc9f-9ffb-45e8-b0aa-f5763e8ccd0d/80b53b78-b963-489b-9fb7-13ef119bff3b-master.m3u8https://video.igem.org/videos/embed/nAdCR6FG775onrrXe1BjcP626082024-12-03T08:27:39.819ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bkTUQLqHeaL52UCQFkuHhehttps://video.igem.org/lazy-static/thumbnails/a984507c-bcd9-41eb-8fd5-dc250d9a000c.jpg《Digiworm》Smart Dental Braces for Cardiovascular MonitoringCardiovascular disease, causing 18 million deaths annually worldwide and 23000 deaths in Taiwan in 2022, poses a significant public health challenge.To address this, our project focuses on an innovative solution including a detection kit, smart braces, and an app. First, a biosensor detects cardiac biomarker levels which are protein and microRNA. A color change in the kit correlates with its concentration, changing the shade of yellow. Patients photograph the result with the Digiworm app, which analyzes the color and the risk. If a high risk is detected, the smart braces activate via infrared light. These braces contain engineered E. coli that produce Lumbrokinase when stimulated by an LED light. Our approach aims to enhance early diagnosis and treatment, potentially saving lives, improving quality of life for patients, and reducing overall healthcare inequality.https://static.igem.org/peertube/streaming-playlists/hls/53c28271-de1c-4627-975c-caf9ffde3261/4b34fa0d-3390-42de-b95c-daf1afc6ffc6-master.m3u8https://video.igem.org/videos/embed/bkTUQLqHeaL52UCQFkuHhe588062024-12-03T08:27:40.049ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tJJAeKaMUwAdnmUu5Hcqvihttps://video.igem.org/lazy-static/thumbnails/91a8daee-f7e6-4690-8c7f-1a8adb8436dd.jpgAmyloShield: Fortified Sweet Potatoes for Glycemic ControlThe International Diabetes Federation indicates that in the Western Pacific region, 1 in 8 adults has diabetes. China alone accounts for one-quarter of the world's diabetic population. While treatments and medications are available, there is insufficient focus on prevention and everyday dietary care. To address this issue, we have engineered sweet potatoes, one of the most starch-rich root crops in the world, known for its high yield and strong adaptability. Crops with a higher amylose content are excellent sources of resistant starch, which can lower diabetes risk and promote health. Our goal is to use gene editing technology to knock out the gene responsible for synthesizing amylopectin in sweet potatoes, thereby increasing the amylose content. The high-amylose sweet potatoes will be incorporated into affordable sweet potato flour, biscuits, and cakes to reduce postprandial blood sugar fluctuations, supporting both diabetes prevention and the dietary needs of those affected.https://static.igem.org/peertube/streaming-playlists/hls/e09e3ab7-57d3-4113-a1ce-c55aba1816cb/401746c2-c86b-43df-b1c6-7a853f7ad127-master.m3u8https://video.igem.org/videos/embed/tJJAeKaMUwAdnmUu5Hcqvi727082024-12-04T19:57:36.867ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/4D8ifzphHuynACpGQ8wzgzhttps://video.igem.org/lazy-static/thumbnails/5a42209c-e663-4067-acf3-d58b857ccef5.jpgIntroduction and prospects of CRISPR-Cas9We will talk about the prospects and improvement of the technology CRISPR-Cas9, in addition, in our project we used this technology to modify E. coli to acquire the ability to resist T7 phage infection.https://static.igem.org/peertube/streaming-playlists/hls/1d7a6ec3-c847-43fc-b679-a2c5697e46cb/4a1fe3f9-99af-443f-bda0-9873b5649d6d-master.m3u8https://video.igem.org/videos/embed/4D8ifzphHuynACpGQ8wzgz643032024-12-03T08:27:51.095ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ezSf1Pu7J1cCVjZknB6Eh6https://video.igem.org/lazy-static/thumbnails/13121315-a385-414e-8484-9c43aa410c91.jpgMicrobiological manufacturing, Protect skin healthReactive oxygen species (ROS) are toxic byproducts of oxygen metabolism and a major cause of skin aging. The skin has a natural defense system to eliminate ROS, but as we age and with increased UV exposure, these protective substances diminish, allowing more free radicals to accumulate and cause cellular damage. Studies have shown that neoagarooligosaccharides (NAOS) possess antioxidant properties and can effectively inhibit excess ROS. Our project involves designing an E. coli prokaryotic expression system to produce β-agarase (AgaA), an enzyme that specifically cleaves the β-1,4 glycosidic bond between D-galactose and 3,6-anhydro-α-L-galactose residues in agarose, generating the antioxidant NAOS. Using the ABTS method, we confirmed the antioxidant capability of NAOS. This antioxidant can be incorporated into skincare products to eliminate excess ROS in the skin, thereby protecting skin health.https://static.igem.org/peertube/streaming-playlists/hls/6e014f3a-bbbc-4dfa-94b2-82988a83d255/2fd63b59-e2e6-45e2-a978-425995b191c1-master.m3u8https://video.igem.org/videos/embed/ezSf1Pu7J1cCVjZknB6Eh6532032024-12-03T08:27:54.271ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/wdwL26EStpdsEm8NLeGvauhttps://video.igem.org/lazy-static/thumbnails/43a4aa24-e413-46e3-adfc-015e434fa869.jpgObstacles encounteredMainly focusing on the challenges faced in terms of the wet lab experiment section during the validation and selection process, including the strategies devised to solve these issueshttps://static.igem.org/peertube/streaming-playlists/hls/f4b20a79-5bd7-46ba-ab47-899cae8e27ca/aa01ca88-a3b1-4d8d-9210-1f7b0ec76558-master.m3u8https://video.igem.org/videos/embed/wdwL26EStpdsEm8NLeGvau427072024-12-04T18:58:03.828ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3kv7qb5tXzaDptKFWWbSZXhttps://video.igem.org/lazy-static/thumbnails/a37151df-ccf4-4bc0-aee4-2fafa4e9a5ad.jpgTea's Odor Alchemy: Osmanthus Enzyme MagicThis project is committed to developing an innovative aromatic product aimed at relieving stress. Our core ingredient is β-ionone, a fragrant molecule found in a variety of flowers, which has been demonstrated to have significant sedative and mood-soothing effects. Through synthetic biology techniques, we have genetically modified Escherichia coli to express Osmanthus fragrans carotenoid cleavage dioxygenase 4 (OfCCD4), an enzyme that can convert carotenoids into β-ionone. To achieve sustainable development, our project has adopted an innovative method: using discarded tea leaves or tea dregs, which are rich in carotenoids, as substrates for the synthesis of β-ionone. Our final detection experiment successfully verified the synthesis of β-ionone through gas chromatography-mass spectrometry (GC-MS) analysis. Our project not only focuses on the functionality of the product but also emphasizes a design philosophy that values health, fashion, and environmental sustainability.https://static.igem.org/peertube/streaming-playlists/hls/12eb5959-1916-4fe4-9d38-5245b7d6e919/a3f87dc6-4264-414b-ae36-8c2961849a9c-master.m3u8https://video.igem.org/videos/embed/3kv7qb5tXzaDptKFWWbSZX573042024-12-03T08:28:20.168ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pTHXGEYcBA6sdgqha29DUehttps://video.igem.org/lazy-static/thumbnails/714f1d7d-cecf-420d-b3b5-5bde04ff90fc.jpgTIME2ACT: Transformative innovation in material enzyme engineering to advance carbon capture tech...Our team consists of 50 passionate mentors and students from three academic institutions in Gatineau, Québec, Canada. In our inaugural iGEM season, we have focused our efforts on tackling plastic pollution and the climate crisis, exploring how to position our project and outreach activities to maximize our impact on these urgent environmental issues. Our project, TIME2ACT, leverages PET-degrading enzymes to transform poorly recycled PET plastic waste into durable and high-performance mesoporous materials, with applications in carbon capture and electrochemical storage and conversion industries. By utilizing our newly acquired skills in synthetic biology, entrepreneurship, and communication, we strive to give new value to the plastic debris that pollutes our forests, lakes, and rivers, while also contributing to global efforts to combat climate change and raise awareness in our community that it is indeed TIME2ACT.https://static.igem.org/peertube/streaming-playlists/hls/c17afafe-6412-4967-aa8d-d1b02f4509f9/615b96f4-38b0-4c30-9189-69112641f769-master.m3u8https://video.igem.org/videos/embed/pTHXGEYcBA6sdgqha29DUe736072024-12-03T08:28:20.286ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/netUs2ctwoZbtoZukWR1Nkhttps://video.igem.org/lazy-static/thumbnails/c507ac42-351f-4724-93a8-84960fd70d2f.jpgImproving quality and quantity of essential oil extraction using engineered E. coliEssential oils have been used widely in daily life products (such as shampoo and soap). Currently, 93% of essential oils are extracted with steam distillation. While this method does not involve toxic chemicals, the yield of essential oil extraction is very low, usually less than 2% of the plant materials. Previous studies identified enzymes which could break down plant cell walls, increasing yield and preserving the quality of the oils. However, these enzymes are not stable during the boiling-hot steam distillation. We here used various engineered E. coli to produce thermostable enzymes (pectinase and cellulase) which allowed substantial enzyme activities during steam distillation, and significantly improved the yield. In addition, we produced lipases to esterify extracted oils, which enhanced their anti-bacterial properties. We also interacted with multiple industrial and academic partners, filed a patent, and designed hardware and models to ensure our project could be launched to the market shortly.https://static.igem.org/peertube/streaming-playlists/hls/abf1c70a-1361-4e1f-ac0a-07b03dd1f1e7/baa23fbe-7ab7-417b-b219-7dd9731f2f15-master.m3u8https://video.igem.org/videos/embed/netUs2ctwoZbtoZukWR1Nk683032024-12-03T08:28:20.352ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/aZmP5fptZLUzmiRhMa5Mguhttps://video.igem.org/lazy-static/thumbnails/15f2ad9d-e201-4bc6-9d53-492c40bde644.jpgMultinational Security Strategies: Navigating Risks TogetherThis panel delves into the perspectives of various national and international organizations on the risks posed by synthetic biology. It will explore their strategies for ensuring the responsible use of life sciences, addressing potential threats such as biosecurity, ethical concerns, and dual-use technologies. This discussion will highlight the importance of balancing innovation with safety in the rapidly evolving field of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/50e477eb-9bc6-46dc-8c5a-708d5bb1e1a6/16208698-8a77-441e-93e7-d43d5c51ea7b-master.m3u8https://video.igem.org/videos/embed/aZmP5fptZLUzmiRhMa5Mgu1812032024-12-03T23:53:27.398ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/1CjuzN4FK1sDiZ6daxqucEhttps://video.igem.org/lazy-static/thumbnails/18dbc7d9-bfd1-444e-b663-6b486b252bce.jpgDecreasing histamine level in human tissues and liquid foodHistamine is one of the key factors of starting an inflammation process. Limiting the level of histamine effect can be an appropriate approach in those cases, where you can anticipate the histamine level increase. On our skin this includes some chronic diseases such as psoriasis, but more often would be useful in handling the acute increase of histamine level, such as a wasp bite. Aspiring the decrease in oral histamine administration may also help to prevent some acute GI inflammation and smoothing the symptoms of some chronic bowel diseases. Our group main aim is to create a complex synthetic biology solution attacking the biologically functional histamine. The solutions we plan to use, are using DAO and HNMT enzymes and ssDNA aptamers known from the scientific literature.https://static.igem.org/peertube/streaming-playlists/hls/05122c1c-e135-496f-a6de-0b34f1bfb464/c11b7aa2-5bf6-43f3-ac55-3db2347f93a8-master.m3u8https://video.igem.org/videos/embed/1CjuzN4FK1sDiZ6daxqucE551032024-12-03T08:28:36.601ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/aLJGFKrLG9wybfaSgYb6YXhttps://video.igem.org/lazy-static/thumbnails/208a567e-42fb-40f5-933e-a3ce746fd3d2.jpgEngineered E. coli for Heavy Metal Removal in Water TreatmentHeavy metals pose serious health risks, including neurotoxicity, kidney damage, and cancer. Our team enhances bioremediation by engineering E. coli to express rice metallothionein (OsMTI-1b) for effective metal binding and genes from Sporosarcina pasteurii for Microbiologically Induced Calcite Precipitation, turning heavy metal ions into easily removable precipitates. Our engineered bacteria are designed for use in facilities or regions requiring heavy metal remediation, such as industrial wastewater treatment plants. This approach ensures that the solution is practical and scalable, providing a greener alternative to conventional methods and contributing to safer water supplies worldwide.https://static.igem.org/peertube/streaming-playlists/hls/4f214a1f-10c7-4932-873d-f73c959e4d0b/98e3bbf5-1556-4cae-9ece-615e2cfbbd41-master.m3u8https://video.igem.org/videos/embed/aLJGFKrLG9wybfaSgYb6YX558042024-12-03T08:29:05.544ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/8pAyEKj8BcXrPKBCX3Uaq1https://video.igem.org/lazy-static/thumbnails/3004d3d8-7633-4867-942c-55087d8b066d.jpgLA&N: Yeast-Derived Human Lactoferrin and N-Acetylneuraminic Acid as Supplements for InfantsIn the face of economic pressures and epidemic challenges, China's breastfeeding rate is a concern. The high cost and limited nutritional value of formula milk have placed a financial burden on many families. This project aims to use Saccharomyces cerevisiae for the low-cost production of two important nutrients in the growth of infants and young children: lactoferrin and N-acetylneuraminic acid. We introduced the human lactoferrin synthesis gene and the high-yield Neu5Ac synthesis gene into Saccharomyces cerevisiae cells using the pESC-URA plasmid vector, respectively. Subsequently, the functions of the engineered cells were verified using a variety of methods, including kits and SDS-PAGE, and the production of the target product was finally confirmed. Our goal is to provide economical nutritional supplements that promote the health and well-being of infants and relieve the psychological stress of mothers who are unable to breastfeed themselves.https://static.igem.org/peertube/streaming-playlists/hls/3bfb60af-f284-4e90-8611-1873aeb438d4/2ecc9cd7-ac97-4afa-b246-ac86c34d5cb0-master.m3u8https://video.igem.org/videos/embed/8pAyEKj8BcXrPKBCX3Uaq1569032024-12-03T08:29:05.642ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gLrxH5wpcG1UwYmRBpLds7https://video.igem.org/lazy-static/thumbnails/b49b889d-0d05-43e0-9b68-85a88420686b.jpgdsRNA Sentinels: Guarding Against Rhizoctonia solaniCorn sheath blight caused by Rhizoctonia solani is one of the most destructive fungal diseases, causing serious losses to corn grain production.We designed and expressed a dsRNA-based fungicide using Escherichia coli prokaryotes, and through a series of functional validation experiments, we found that RsCAT-dsRNA has the potential to prevent and treat sheath blight.https://static.igem.org/peertube/streaming-playlists/hls/7fad8cab-5455-4e16-820c-a7ead72a1c0a/13bc8cd7-4249-436d-8cf9-d729caf53144-master.m3u8https://video.igem.org/videos/embed/gLrxH5wpcG1UwYmRBpLds7753002024-12-03T08:29:05.822ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/dttoCJy4h1c1kiBWUJtjC8https://video.igem.org/lazy-static/thumbnails/3544992c-42de-4260-b8d4-a72654b59a10.jpgMetalytic - Easy Automated Metal BiosensorOur project tackles heavy metal contamination in Hong Kong, inspired by incidents like lead in public housing water and contaminations from various origins such as agricultural land pollution, misconnection of pipes, and sewage water pouring into storm drains. These concerns highlight the need for affordable, user-friendly biosensors to detect metals like lead, cadmium, mercury, and zinc. To ensure visual detection in our biosensors, we focused on using chromoprotein reporters. Then, we identified metal-inducible promoters from literature and the iGEM database, studied their characteristics, and integrated them with the chromoprotein reporter system. We successfully developed a lead biosensor and a cadmium biosensor and demonstrated that the lead biosensor is concentration-sensitive. Additionally, our hardware team developed an automated machine using IoT and AI technologies. It can cultivate the biosensors and features an automated detection and warning system, ensuring practical and accessible monitoring of heavy metal pollutants in various settings.https://static.igem.org/peertube/streaming-playlists/hls/6503a023-5051-41c4-9452-da7fb147380f/78751515-1485-440f-a334-c8b4a0439c36-master.m3u8https://video.igem.org/videos/embed/dttoCJy4h1c1kiBWUJtjC86760352024-12-03T08:29:12.186ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/qZ3TV9H1YWvXd3JfU9EeGPhttps://video.igem.org/lazy-static/thumbnails/0124b524-35b6-4276-9237-49126c7b8816.jpgBANANA GUARD-BanavacBananas, being triploid and reliant on asexual reproduction, lack genetic diversity, making them highly susceptible to pathogens like Fusarium oxysporum, which threatens entire banana industury. Traditional sterilization methods (sunlight, chemical disinfectants, soil isolation) are ineffective and unsustainable. Instead, our project focuses on coexistence through competition. We genetically modify Fusarium oxysporum by removing the FUB1 toxin gene and introducing the RiCLE symbiotic gene from Rhizophagus irregularis, creating a strain that promotes banana growth while protecting against wild-type pathogens. The modified fungus acts as a vaccine, occupying ecological niches to fend off harmful strains. To prevent biohazard, we designed a kill switch system using tetracycline to control spore production within a specialized fermentation tank. Spores are produced safely. Waste water is disinfected with disinfectant and air is disinfected with filter membrane and UV light, ensuring controlled and bio-safe application. Our final product is a spore suspension kit with dry spore powder.https://static.igem.org/peertube/streaming-playlists/hls/ca5281c4-813f-4deb-973a-638719bbd183/7a8821b4-684f-4be2-91f8-7252068c300f-master.m3u8https://video.igem.org/videos/embed/qZ3TV9H1YWvXd3JfU9EeGP633012024-12-03T08:29:16.154ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/5dFC9sfDXGWCBunYqA6yABhttps://video.igem.org/lazy-static/thumbnails/b2df905d-7afb-412d-ac1c-c6f549cfca7e.jpgThe commercial prospects of new GLP-1 secreting probioticsThe commercial prospects of new GLP-1 secreting probiotics, combined with Bimagrumab, are exceptionally promising for weight management. GLP-1, a hormone that regulates appetite, can aid in weight loss by controlling hunger and satiety. Integrating Bimagrumab, a monoclonal antibody known for its role in preventing muscle loss, enhances this approach by preserving muscle mass during weight reduction. This combination addresses a critical concern in weight loss—maintaining muscle while losing fat. As demand for comprehensive weight management solutions grows, particularly those that address both fat loss and muscle preservation, these advanced probiotics are poised to meet market needs effectively. Success will depend on demonstrating clinical benefits, consumer acceptance, and securing necessary regulatory approvals.https://static.igem.org/peertube/streaming-playlists/hls/2229e607-1c57-459f-898d-117cf596d6bf/198ff84c-b069-4df7-a2cd-47f5ac616274-master.m3u8https://video.igem.org/videos/embed/5dFC9sfDXGWCBunYqA6yAB335012024-12-03T08:29:21.401ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/gmFqu7t9gCAvZ4CTvrb1Pxhttps://video.igem.org/lazy-static/thumbnails/20f9a85d-9580-4ba3-a5d1-a603f8be7add.jpgAn improved production method of the D-allulose sugar substituteWe will talk about the benefits of the D-allulose sugar substitute, further, we will introduce a new method to produce the D-allulose sugar substitute which is also the aim of our project.https://static.igem.org/peertube/streaming-playlists/hls/7c5c4004-1d51-4872-9c78-3241a24f73c5/6ae7318d-a6c3-4fc2-be0b-02ee74976281-master.m3u8https://video.igem.org/videos/embed/gmFqu7t9gCAvZ4CTvrb1Px643032024-12-03T08:29:25.157ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tj9RcCYnqVZ9hrB5D378gVhttps://video.igem.org/lazy-static/thumbnails/c0c0a73e-ed19-4760-9d9a-7af0d5ff6244.jpgSHEDer(Saliva-Based HBV Early Detector)Hepatitis B virus (HBV) infection remains a global concern, even with the implement of HBV vaccination. The current HBV detection is mainly blood serum-based, which is invasive, expensive and needs some waiting time to obtain the test results. Our project aims to develop a rapid, reliable, and low-cost detection system for HBV virus infection using the CRISPR/Cas12 and RPA technologies combined in one-pot assay to facilitate the screening and treatment of Hepatitis B disease.https://static.igem.org/peertube/streaming-playlists/hls/dd2f95aa-5507-45ef-98ac-d2b9f7233047/8ff8bda9-2b53-4247-bc8c-ac64c20e78e4-master.m3u8https://video.igem.org/videos/embed/tj9RcCYnqVZ9hrB5D378gV676062024-12-03T08:29:29.783ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/qp1b4nebUpdznZ5QcS93QPhttps://video.igem.org/lazy-static/thumbnails/fe2e9b34-336d-45af-b41c-2f05ba72478a.jpgEffective Delivery of siRNA-Loaded PEI-Carbon Dots for Reducing Populus tomentosa AllergyWe are POKEY-M from Keystone Academy, and our goal is to reduce pollen allergies caused by Populus tomentosa in Beijing and northeastern China, particularly to protect our family members and friends. Using RNA interference (RNAi) technology, we utilize nanotechnology as a delivery system, specifically polyethyleneimine-modified carbon quantum dots (PEI-CDs), to transport siRNA into plant cells. This approach inhibits the expression of two key pan-allergenic proteins, HSP70 and Profilin 3, helping to mitigate pollen allergies associated with Populus tomentosa. We also plan to develop a spray application for broader use across various tree species with similar allergenic proteins. This talk will present our approach, experimental methods, challenges, and potential for broader environmental applications, aiming to showcase a novel and practical solution to reduce plant-derived allergies through advanced biotechnological interventions.https://static.igem.org/peertube/streaming-playlists/hls/c5918a9a-82c7-46d2-8d58-0fc2494db697/3c990ceb-7130-4376-b01b-9b09a8d9664f-master.m3u8https://video.igem.org/videos/embed/qp1b4nebUpdznZ5QcS93QP5360182024-12-03T08:29:34.855ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pKZQcz3876TTJBGNqXSk2shttps://video.igem.org/lazy-static/thumbnails/b97be3a4-f5c6-4554-9358-4c1fd0eb5e62.jpgGreen Solution for Vitamin B6 and t he Promising Future of Synthetic BiologyIn this Live stage talk, we'd like to about the future and benefit of the synthetic biology in the economic ,environment and tech innovation sector ,the impact of iGEM and our project. Moreover, we have recorded a demo if you are interested in.https://static.igem.org/peertube/streaming-playlists/hls/c066cf98-cfd7-4df3-9419-9cea393d09c0/f6969994-64ed-4e9f-a9ae-f1ba2153da07-master.m3u8https://video.igem.org/videos/embed/pKZQcz3876TTJBGNqXSk2s406032024-12-03T08:30:00.614ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pmCzQEUyqCDn68BpY1N5aVhttps://video.igem.org/lazy-static/thumbnails/c084a1a3-89b6-4685-abbe-eb921afcc70f.jpgEvaluating the Feasibility of WGX-50 for Alzheimer’s TreatmentOur project investigates the potential of WGX-50 as a treatment for Alzheimer’s disease. Our consultations with healthcare experts and care institutions highlighted that the practical application of anti-aging drugs demands more than scientific validation; it requires collaboration across sectors. Clinical trials for Alzheimer’s treatments are lengthy, with limited data and public concerns persist regarding severe side effects of current drugs, such as Lecanemab, which may cause brain hemorrhage, especially in individuals with the APOE gene. Nursing home administrators emphasized the need for comprehensive training in drug administration, side effect management, and patient education. Implementation requires close collaboration among caregivers, medical professionals, and institutions. Our team’s HP events and findings show the development and application of synthetic biological drugs require a systematic, multi-disciplinary approach involving researchers, healthcare providers, regulatory agencies, and pharmaceutical companies. Only through such coordination can we ensure the safe and effective integration of new therapies into patient care.https://static.igem.org/peertube/streaming-playlists/hls/bd239c23-d58a-4599-814b-eaf82a24e93f/e70d238a-52f7-423d-a3f9-c8ef9b662753-master.m3u8https://video.igem.org/videos/embed/pmCzQEUyqCDn68BpY1N5aV6390172024-12-04T19:56:51.838ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ntoZfqa3grEgK6KLL3avk2https://video.igem.org/lazy-static/thumbnails/31b9e7e1-54fc-43f1-8233-ebc931ee7fa5.jpgSmall Fish in a Big PondThis talk is a general talk about applying for and participating in iGEM from the perspective of a team from Thailand. Thailand-RIS members will talk about the limiting factors that affected our iGEM project and how the Thailand-RIS teams over the years tried to overcome them. Specifically on how working for and starting a project in synbio in the SEA region where synbio is still not widely present or funded affected us. We would also touch on more general factors such as resourcing a new iGEM project, challenges of plant synthetic biology and connecting with a target audience consistently as a high school team. We would discuss some of the difficulties and offer solutions or talk about what worked for us for each of these points and end off the talk with how enlightening gaining this opportunity has been for us and how it has changed our High School experience.https://static.igem.org/peertube/streaming-playlists/hls/ade328f0-7489-460c-8a17-9a8416ca33eb/90d7cd9b-16f6-4cde-85ef-ea7b16c86f5c-master.m3u8https://video.igem.org/videos/embed/ntoZfqa3grEgK6KLL3avk27380102024-12-03T08:30:01.061ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/sACV7xznJfKzf2mTzWrhCQhttps://video.igem.org/lazy-static/thumbnails/79683bfc-5020-4595-bf1a-e973cd480f88.jpgChallenges and lessons we've faced and learned fromWe aim to show the true journey of our project in this less formal talk. Topics may include the challenges we faced and the little successes we managed to pick up; the parts we're most proud of and the potential goals we came short of; the meaningful lessons we've learned and the happiest memories created.https://static.igem.org/peertube/streaming-playlists/hls/d763a4ba-932f-4a3e-b169-92ac9891ad40/ec9b5ab4-1165-4d85-92a1-ca953ad6bf49-master.m3u8https://video.igem.org/videos/embed/sACV7xznJfKzf2mTzWrhCQ6300672024-12-03T08:30:10.134ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/dMBtbtiP79yyQ5C15Pb9G1https://video.igem.org/lazy-static/thumbnails/c7b1c182-6c73-46ce-82e6-42fac9516fa7.jpgResponsibility Conference - Closing CeremonyA high-level summary of the discussions, workshops and proceedings of the conference.https://static.igem.org/peertube/streaming-playlists/hls/678bfdec-7adc-4eb6-b58a-3f1db4873230/54b84913-0b27-410e-bd8d-a5e0520c304a-master.m3u8https://video.igem.org/videos/embed/dMBtbtiP79yyQ5C15Pb9G12363012024-12-04T00:14:34.943ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/2EGdyhcvpfiKk7s2W8XEgFhttps://video.igem.org/lazy-static/thumbnails/a283b75e-4ccb-4060-a4bf-f780dfc82626.jpgATLAS - Antigen Triggered Loop Activation SystemChimeric antigen receptor T-cell (CAR-T) therapy has seen unprecedented success in combating blood-based tumors such as leukemia. Yet, it is estimated that blood-based tumors comprise only 10% of all tumors occurring worldwide. The tumor microenvironment (TME) in solid tumors has been shown to reduce the effectiveness of CAR-T cells in killing cancer cells due to the heterogeneity of target antigens, physical barriers created by the extracellular matrix, loss of tumor antigens due to downregulation or mutations, and antigen masking. These factors lead to a lower density of targeted antigens, a challenge that our iGEM project is attempting to solve this year. We are introducing ATLAS - Antigen Triggered Loop Activation System, a circuit that increases the abundance of antigens for greater recruitment of CAR-T cells and a more effective killing response.https://static.igem.org/peertube/streaming-playlists/hls/0d802fab-b566-4677-8dc2-8181f34b3fed/7753bd61-ae07-45ea-89c2-97a71bffd064-master.m3u8https://video.igem.org/videos/embed/2EGdyhcvpfiKk7s2W8XEgF6210112024-12-03T08:30:24.400ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/kXBNXvNjcf1LNA5HqaheHqhttps://video.igem.org/lazy-static/thumbnails/625acf9d-07d1-4e3d-bc21-df4ff18643f1.jpgResponsible Sample Handling - Be Careful How You ShareWe all know how important research samples are and that sample sharing is an important part of collaborations. However, before you ship biological materials or transport them by hand, make certain you know how to safely and legally do so. Hear about examples of improper transport of biological materials and the potential consequences for your research.https://static.igem.org/peertube/streaming-playlists/hls/a1a19c3f-77b8-4dea-a3d4-8b2747a4fb86/0630622a-0952-463c-b253-0ece6aaaf14a-master.m3u8https://video.igem.org/videos/embed/kXBNXvNjcf1LNA5HqaheHq780002024-12-03T23:06:03.043ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/onm31ZGqYDVnqdeX9qG7chhttps://video.igem.org/lazy-static/thumbnails/5c3318a6-b33b-4916-9150-5e5c65a99695.jpgVIPR: Virus-Inspired Particle Recombinant Vaccine for SchistosomiasisSchistosomiasis is a World Health Organization (WHO)-listed Neglected Tropical Disease characterized by the blood-dwelling helminths. Currently, all schistosomiasis vaccine candidates based on recombinant subunit antigens have encountered setbacks at various stages of clinical trials, underscoring the formidable challenges in vaccine development. Critically, these subunit vaccines lack the three-dimensional macrostructure necessary for optimal recognition by B cells as pathogenic. Drawing inspiration from Professor Mark Howarth’s group’s SpyCatcher-SpyTag system, a protein couple tool for peptide and protein ligation, our objective is to conjugate schistosomiasis antigens on virus-like-particle (VLP) scaffold to create high-density antigen nanoparticles to enhance vaccine immunogenicity. Together with a batch of novel antigens discovered in January 2024 through unbiased phage display, our aim is to present a diverse range of schistosomiasis antigens on VLPs. Thanks to the modularity of our VIPR, we hope to accelerate vaccine development and antigen screening for helminth diseases with a complex life cycle.https://static.igem.org/peertube/streaming-playlists/hls/b524043d-522d-4b04-95b0-8d60743e3666/1e717256-6833-460d-bee2-ed9c142aa5e4-master.m3u8https://video.igem.org/videos/embed/onm31ZGqYDVnqdeX9qG7ch707052024-12-03T08:31:16.433ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/1GZ8284x3Td25pEUfMzbKvhttps://video.igem.org/lazy-static/thumbnails/555a132e-7145-41a9-a299-3abb50b00ac2.jpgSynthetic Biology for Space and Earth ApplicationsWe will cover the emerging role of synthetic biology in space exploration and its dual effects on extraterrestrial and terrestrial environments. Synbio opens up new avenues to solve some of the prominent challenges in space missions, ranging from life support and resource production to biomaterials synthesis and biomining. This panel presents synbio space applications and assesses how iGEM projects and other projects can be transferred to the extreme conditions of space.https://static.igem.org/peertube/streaming-playlists/hls/05b8f3f0-0656-44a2-8bff-61fa3ee0cdfb/01a6b0b6-b0dc-47bf-a928-1b1b4193d75f-master.m3u8https://video.igem.org/videos/embed/1GZ8284x3Td25pEUfMzbKv18770852024-12-04T00:05:21.985ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/4qffTwZG1RY8b4CYhnc2hshttps://video.igem.org/lazy-static/thumbnails/7cbda6c2-22b9-4eb1-a497-74a3773ede5a.jpgPI Experience: Organizing iGEM TeamsEvery iGEM team has a distinct origin story, with some initiated by students, others by PIs, and many sparked by inspiration from regional teams or broader initiatives. In some cases, iGEM alumni-turned-professors establish teams at their institutions, while in other cases, team formation aligns with national strategies for advancing synthetic biology. This panel will explore the best practices adopted by PIs worldwide to organize, support, and sustain iGEM teams, ensuring a successful competition season. It will also address the challenges PIs face in maintaining team continuity and navigating institutional, logistical, and resource barriers. https://static.igem.org/peertube/streaming-playlists/hls/1bae0d6e-3219-4f77-be7a-8aed2ab027e6/f58b6e90-0447-4d4e-89ab-24a77db1004f-master.m3u8https://video.igem.org/videos/embed/4qffTwZG1RY8b4CYhnc2hs1698022024-12-03T23:50:08.156ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/epynqupbKyhWyVumh5HLEihttps://video.igem.org/lazy-static/thumbnails/ebe3b5f4-2bae-494c-81bc-d22f89ec7586.jpgThe Blend Between Arts & SciencesThe session will explore the intersection of arts and sciences through the lens of BioArt with internationally renowned artists, encouraging iGEM participants to engage in critical thinking and creativity. By sharing their cutting-edge projects and extensive career experiences, the speakers will showcase how innovation in synthetic biology and artistic meaning can emerge from transdisciplinary approaches.https://static.igem.org/peertube/streaming-playlists/hls/6c90db8c-5241-45f2-baf0-0c5b446d9985/719f436b-b0cf-441e-9276-4911dfb08432-master.m3u8https://video.igem.org/videos/embed/epynqupbKyhWyVumh5HLEi23180202024-12-04T00:12:35.687ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/8nxLDEAan7awDSqsRQqW1phttps://video.igem.org/lazy-static/thumbnails/2a4b3bdc-bbc9-46be-9c88-0cbc3c7b1645.jpgPlastid-mediated RNA interference achieves efficient control of agricultural pestsAs the main pest of tobacco, Calyptogramma has a serious impact on the yield and quality of tobacco.HUBU-China exploited RNAi's mechanism of action to induce complementary mRNA degradation leading to gene silencing in the important lepidopteran pest Spodoptera litura.Tobacco plastid is designed as a delivery system capable of expressing both the VLP protein shell and the chitin synthase gene.Firstly,expressing a large number of artificial microRNA (dsRNA) of the chitin synthase gene necessary for the growth of Spodoptera litura, which can enter the cytoplasm after Spodoptera liturae eats tobacco.Additionally, Argonaute proteins (AGOs) assemble these siRNAs to form RNA-induced silencing complexes (RISCs) that mediates the degradation of endogenous mRNA complementary to its guide strand, so that the chitin synthase gene cannot be expressed.As a result, lepidopteran peststo can be control efficiently.We hope that this delivery system can make a difference in disrupting insect development.https://static.igem.org/peertube/streaming-playlists/hls/3bb22b2b-b1ad-4af9-ae30-7c5c014c428f/47146da2-8d08-4168-a1fd-558aab4ab31c-master.m3u8https://video.igem.org/videos/embed/8nxLDEAan7awDSqsRQqW1p453042024-12-04T19:37:26.376ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/wJJqoQVuaeodum38a1fguthttps://video.igem.org/lazy-static/thumbnails/331c67d7-a1fc-4e13-be57-4afb6060a537.jpgPalettEmoPalettEmo is composed of "Palette" and "Emotion", aiming to combine AI emotion weighting algorithm and synthetic biology art. We innovatively constructed Quorum sensing with Fluorescence Resonance Energy Transfer (FRET), which can achieve quantitative control to produce mixed fragrance automatically. As for model, we not only successfully constructed a Facial Expression Recognition model with an accuracy rate of up to 92%, achieving new state-of-the-art (SOTA) performance and surpassing the previous best models, but also integrated model and Wet Lab closely to assist in selecting FRET linkers. Starting from the mechanisms of FRET and visual perception, we created a theoretical attraction method for scent molecules and emotion, and explored the biological processes behind color recognition and emotional changes. We delve into society to receive feedback and spread education to the world, building PalettEmo influence and promoting global welfare.https://static.igem.org/peertube/streaming-playlists/hls/f8e98a6e-cda1-4d38-b856-c71de4f8b91f/62ed108f-cbbd-4e4d-b850-91be91218cbb-master.m3u8https://video.igem.org/videos/embed/wJJqoQVuaeodum38a1fgut7650192024-12-03T08:32:43.367ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/mMPWzZPxCGuCukHCxtdWZwhttps://video.igem.org/lazy-static/thumbnails/cf7f9f6d-0068-4231-88dd-244974fc6f35.jpgEngineering with Openness: Advancing Synthetic Biology through Open TechnologiesiGEM is built on an open community and technologies: you share your parts and projects so that future teams (and users) can build upon them, and this iterative process has potential to advance the field of synthetic biology and solve real-world problems. For synthetic biology, open technologies can aid innovation by enabling rapid development in a collaborative community. They can also enhance education and lower costs by reducing barriers to entry. Our panelists will discuss why openness is important to them and their respective projects, how they’ve seen their communities contribute, and how you can get involved.https://static.igem.org/peertube/streaming-playlists/hls/a85cc9a1-f306-4f74-8902-67201c16f610/1e0a821b-c39c-4a63-be24-05bc60448ea3-master.m3u8https://video.igem.org/videos/embed/mMPWzZPxCGuCukHCxtdWZw1825012024-12-04T00:03:42.062ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/hfw3o5dC263stbJX2oQxWZhttps://video.igem.org/lazy-static/thumbnails/5557b8a0-a8a8-4df7-be4e-852b1b1cd112.jpgThe New Tools that Will Empower the Next Generation of iGEM TeamsHow do the challenges of an iGEM team compare to common challenges across academia and industry? Emerging technologies across several domains hope to address core challenges of synthetic biology: software, automation hardware, DNA synthesis, AI. In this panel, we'll seek to align the new technologies on the horizon with the real needs of iGEMers. Let's get better tools into the hands of the next generation of synthetic biologists.https://static.igem.org/peertube/streaming-playlists/hls/83992511-07c9-4e19-95d9-3c51b7e8e111/6637362e-dd18-473b-8dd5-c9d94fea3f69-master.m3u8https://video.igem.org/videos/embed/hfw3o5dC263stbJX2oQxWZ2703072024-12-04T00:58:12.824ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/amHNN84k7EnHR2Q9SvqSFBhttps://video.igem.org/lazy-static/thumbnails/207b3ba0-c3ce-4b17-b54e-40236b354f1d.jpgiGEM Startup Showcase - Part IIThe iGEM Startup Showcase - Part II will feature our 2024 iGEM startups cohort as they pitch to a panel of expert judges. This session will focus on the innovative companies in our Environment & Climate Track, as well as those competing in our Food & AgTech Track.https://static.igem.org/peertube/streaming-playlists/hls/4bc6e340-976f-437e-af00-80d143f032d1/2f2d6c68-9d16-4775-b5a5-25d0c9b3197c-master.m3u8https://video.igem.org/videos/embed/amHNN84k7EnHR2Q9SvqSFB38590382024-12-04T01:21:19.715ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/p4gqN66Gm1HtfhHf7P4t84https://video.igem.org/lazy-static/thumbnails/6d1e0123-9485-4f59-9231-e902a1d81e31.jpgPI Experience: Publishing iGEM ProjectsiGEM teams catalyze the infusion of synthetic biology with interdisciplinary fundamental and translational research to solve local problems and advance the field of synthetic biology. Once the competition is over, many of the teams publish their projects. This panel will focus on the journey from iGEM project completion to publication, how to design and build a publishable iGEM project, what are some of the challenges PIs face in designing projects, and what kind of resources and mentorship can be useful for them. https://static.igem.org/peertube/streaming-playlists/hls/bab6ed92-be7b-4a49-97f2-ac535183308d/71f9c044-bec8-4a02-aee9-f823ebf048fb-master.m3u8https://video.igem.org/videos/embed/p4gqN66Gm1HtfhHf7P4t841830032024-12-04T00:15:26.717ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/tXPxzyDjpn91M1hx62oPEbhttps://video.igem.org/lazy-static/thumbnails/5f83faf2-78d5-451e-8e05-40bcc1ba7c74.jpgWomen in Synthetic Biology: Leading Innovation and Shaping the FutureReflecting on the transformative impact of women in synthetic biology, celebrating their pioneering innovations and influence on the future.https://static.igem.org/peertube/streaming-playlists/hls/e271f394-7696-43f6-ad79-fbba3c2d56a2/3a4b26b0-0ab5-4a4f-86de-7bf51af835fe-master.m3u8https://video.igem.org/videos/embed/tXPxzyDjpn91M1hx62oPEb2886092024-12-04T01:32:45.665ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/szbVVQHwz9PtEem5b3XXfDhttps://video.igem.org/lazy-static/thumbnails/3f4bba75-6b7b-4e54-a2ed-d3e201ee276b.jpgShaping the Future of Sustainable Food System through AgTechExploring how advancements in AgTech are revolutionizing food production to meet global demands sustainably, with insights from industry trailblazers and leading innovators.https://static.igem.org/peertube/streaming-playlists/hls/d72fe2a2-d244-427a-9085-744f0af2ff05/61a5b5cb-c32b-4685-93a4-e18a78b04b32-master.m3u8https://video.igem.org/videos/embed/szbVVQHwz9PtEem5b3XXfD26160172024-12-04T00:27:54.302ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/titoWct6EWnFZH3qkiM7dPhttps://video.igem.org/lazy-static/thumbnails/c9e83522-1b5d-472c-82fa-d1709eea2735.jpgInnovation Around Europe: A Round-Table DiscussionExplore the European perspective on fostering innovation and shaping industries to tackle key challenges.https://static.igem.org/peertube/streaming-playlists/hls/dd17455c-31dd-46df-a721-dca5624bc5b7/969df0ce-72f6-4d6f-be1f-2705d064cd4d-master.m3u8https://video.igem.org/videos/embed/titoWct6EWnFZH3qkiM7dP2907022024-12-04T01:42:41.287ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/dH7NKhhbxo4zF1vwKd866Hhttps://video.igem.org/lazy-static/thumbnails/d0d04ae3-a420-4c3e-af7a-47c324167618.jpgiGEM Startup Showcase - Part IThe iGEM Startup Showcase - Part I will feature our 2024 iGEM startups cohort as they pitch to a panel of expert judges. This session will focus on groundbreaking companies in the Health & Medtech sector, as well as those competing in the Environment & Climate track.https://static.igem.org/peertube/streaming-playlists/hls/66eb5a52-3ec3-4335-9079-66a9219976b7/69d6a0b3-dd10-4f71-a901-26aa813d73bc-master.m3u8https://video.igem.org/videos/embed/dH7NKhhbxo4zF1vwKd866H32850612024-12-04T00:55:36.486ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/3Y8YosqimY7YCmUhKsSm7Dhttps://video.igem.org/lazy-static/thumbnails/4e7a5fdd-dac0-446a-ba13-5044744fe52b.jpgTransforming Healthcare: Innovations at the Intersection of Medicine and TechnologyThis session explores how cutting-edge advancements in medical technology are revolutionizing healthcare. Hear from leading experts about breakthrough solutions that are improving patient outcomes, enhancing medical practices, and shaping the future of healthcare.https://static.igem.org/peertube/streaming-playlists/hls/1808d76b-1ca0-4792-85c7-0b430cef4ba1/156c96b7-4de0-4748-af0f-adb874046e7f-master.m3u8https://video.igem.org/videos/embed/3Y8YosqimY7YCmUhKsSm7D2881032024-12-04T00:34:04.219ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/fKPtYZtTanUiqFX5EsKUFohttps://video.igem.org/lazy-static/thumbnails/d66be91a-6ad6-4c2a-af2e-ee26717c3e4e.jpgNavigating the Journey from Startup to Scale-UpInsights and strategies for innovators on how to grow a startup into a successful scale-up in today’s competitive landscape.https://static.igem.org/peertube/streaming-playlists/hls/777e2f79-f5c8-478a-84ef-00b8a2d9a7d4/b410b694-5453-4c05-bd26-0823e4a61b67-master.m3u8https://video.igem.org/videos/embed/fKPtYZtTanUiqFX5EsKUFo2551032024-12-04T00:36:51.082ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/4h4MqyzYZxHQEef3iNQP8chttps://video.igem.org/lazy-static/thumbnails/758d0b81-d93d-4055-932d-465eba4b9088.jpgiGEM to Startup: The Journey from Competition to EntrepreneurshipSuccess stories and lessons learned from iGEM Alumni who transitioned from academia to founding startups.https://static.igem.org/peertube/streaming-playlists/hls/1a89a5d3-6bb9-49ff-8e41-dd7d42d51bbd/07dcafb4-4def-4ef9-af36-379e5f5eae96-master.m3u8https://video.igem.org/videos/embed/4h4MqyzYZxHQEef3iNQP8c3791092024-12-04T02:13:44.778ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/rxpP1PnjK3U8vwx4d7JAEjhttps://video.igem.org/lazy-static/thumbnails/f0c1eb4f-5a1f-48b9-b715-6be3de05c239.jpgDriving Innovation for a Sustainable Future: Climate & Environmental SolutionsA deep dive into technologies and strategies tackling environmental challenges, featuring insights from startups and investors shaping the future of sustainability.https://static.igem.org/peertube/streaming-playlists/hls/ced73279-7393-43f5-8bbd-dbc8e266c826/3a219d98-9336-4375-af33-c8b3e0aadc13-master.m3u8https://video.igem.org/videos/embed/rxpP1PnjK3U8vwx4d7JAEj3247012024-12-04T01:02:43.662ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/g9gY5NVSAYVqSB5pSxRK9Xhttps://video.igem.org/lazy-static/thumbnails/013261d0-f939-41be-8a8d-cf27b5636a1f.jpgMeet the Innovators of the Bioinnovation FairDiscover the Innovative Leaders Shaping the Future at the iGEM Startups Bioinnovation Fairhttps://static.igem.org/peertube/streaming-playlists/hls/7aa0deba-f85d-4048-8095-91a19175dfab/2aaa2851-3faf-40bd-8337-3e52e29ffe3f-master.m3u8https://video.igem.org/videos/embed/g9gY5NVSAYVqSB5pSxRK9X3069052024-12-04T00:54:41.218ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/rzaNrbnq2mnBrmif6Uj8Wvhttps://video.igem.org/lazy-static/thumbnails/147b9699-f5da-4473-a91f-0c58396fb09d.jpgAI Meets Synthetic Biology: Revolutionizing the Future of Life SciencesUnveiling the powerful synergy between AI and synthetic biology in accelerating breakthroughs in life sciences.https://static.igem.org/peertube/streaming-playlists/hls/cf160cfd-1682-4684-bdfd-d78059c22e85/10bd210c-0e26-4d02-99b3-8a2fc855075c-master.m3u8https://video.igem.org/videos/embed/rzaNrbnq2mnBrmif6Uj8Wv28750102024-12-04T01:03:10.341ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/wmVcsJRgwLUtKp2RsutRyvhttps://video.igem.org/lazy-static/thumbnails/80e4ba01-c053-4a9a-adc1-04fbe0ce122c.jpgReFiBa - Enzyme based Recycling of textile Fibers using Bacillus subtilisThe exponential growth in global textile production has led to a worrying increase in textile waste, requiring the development of efficient recycling methods. Our team is addressing this issue by focusing on the degradation of the main components of clothing, cotton (cellulose) and polyester (PET), using cellulases and PETases. The prokaryotic model organism Bacillus subtilis is applied for protein expression. We are exploring two enzyme expression systems: first, screening of different secreted and intracellular enzymes for the most promising and suitable candidates, and second, using these enzymes for immobilisation on the surface of endospores, providing resistance to harsh conditions and improving enzyme reusability. Both approaches aim to facilitate the degradation of mixed textiles into reusable chemicals. Through our project ReFiBa, we aim to develop a circular economy concept that promotes sustainable textile recycling and offers a promising solution to the global textile waste problem.https://static.igem.org/peertube/streaming-playlists/hls/f5ddd1c3-65dc-4637-9c8c-fb31ebcc6b39/aeaabf95-7f6a-4156-8bf8-ba234f6041db-master.m3u8https://video.igem.org/videos/embed/wmVcsJRgwLUtKp2RsutRyv692032024-12-03T08:34:13.126ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nKs6ULhicEvyXE1CVNcGykhttps://video.igem.org/lazy-static/thumbnails/1c6ba773-7279-45eb-be65-1aa2644faf73.jpgPETase Powerhouse: Crafting the Ultimate Enzyme Factory for PET DemolitionPET is a widely used plastic. However, its extensive use has also caused severe environmental pollution. In this project, through multiple rounds of engineering cycles, we optimized the promoter, signal peptide, and culture conditions, successfully constructing a highly efficient ICCG expression system. First, we created an ICCG-GFP fusion protein and used fluorescence intensity to characterize ICCG protein expression levels. During promoter optimization, we generated a Mtac promoter library through random mutagenesis and used a CNN-LSTM model to design and optimize the novel DMtac promoter. For the signal peptide, we screened and optimized the nfaA signal peptide and designed MnfaA mutants using a Markov transfer frequency matrix model. By combining high-throughput screening systems with predictive models, we significantly improved the expression efficiency of ICCG, providing valuable components and tools for future synthetic biology research.https://static.igem.org/peertube/streaming-playlists/hls/b020fad6-4593-42c2-89d8-bddfc3bc0cab/ba0909cc-8f0c-4fe5-ad31-1b8371933da3-master.m3u8https://video.igem.org/videos/embed/nKs6ULhicEvyXE1CVNcGyk619082024-12-03T08:34:13.805ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/svngh6iCnmJPNbyAoeEzkQhttps://video.igem.org/lazy-static/thumbnails/365a2511-62bf-4efe-8acf-8e4f52bfbc48.jpgBIOSnare : when bacterial cellulose meets a colored bioglue producing yeastGiven global challenges like food insecurity and environmental degradation, it’s needed to protect agriculture and households from harmful insects to reduce food waste. BioSnare addresses this problem by developing a 100% bio-based and biodegradable adhesive patch designed to capture pests. Using a co-culture of Komagataeibacter rhaeticus, a cellulose-producing bacterium, and genetically modified Saccharomyces cerevisiae, our system produces functionalized cellulose equipped with adhesive properties and specific colors to attract target pests. The yeast is engineered to secrete a fusion of the barnacle-derived protein Cp19k and spider silk-derived Masp1 for strong adhesion, alongside yellow chromoprotein fwYellow to attract insects like the Suzuki fly. Cellulose-binding domains (CBD) ensure that these proteins adhere to the cellulose matrix, creating a biodegradable trap. BioSnare provides a versatile concept promising alternative to conventional insecticides and traps, which pollute the environment. It aims to protect agriculture and households while promoting environmental sustainability.https://static.igem.org/peertube/streaming-playlists/hls/d6a7474d-9e07-4bf0-ae68-d217ddc86422/8eec6983-980f-40d4-af4a-d13414b6948c-master.m3u8https://video.igem.org/videos/embed/svngh6iCnmJPNbyAoeEzkQ591042024-12-03T08:34:16.943ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9pPRvkH8qEw3BeXvLK4Dcqhttps://video.igem.org/lazy-static/thumbnails/39729065-cfd2-44a3-8d99-2c64a6f066c0.jpgNavigating The Future of AI in Synthetic BiologyArtificial intelligence and related technologies have the potential to revolutionize biotechnological innovation – rapidly accelerating everything from novel drug discovery to the optimization of crop production. This event will convene leaders across public and private sectors to build on last year’s panel via discussion on the potential of technological convergence, the status of the effort to understand risks in this space, and guidelines for responsible AI x Synthetic Biology innovation.https://static.igem.org/peertube/streaming-playlists/hls/441cb4f0-0656-441f-9e27-ab544feb8a32/0301e498-8cd9-478e-bb87-db988caf231f-master.m3u8https://video.igem.org/videos/embed/9pPRvkH8qEw3BeXvLK4Dcq4160082024-12-04T05:18:12.367ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/oFamNYDGePKHHQBZn8PAo2https://video.igem.org/lazy-static/thumbnails/73f3b844-e192-4a30-b4ba-9e7b2c8e2da9.jpgImproving Reflexivity and Responsiveness in Research of Emerging TechnologiesIn the fast-paced world of emerging technologies and industries, it’s crucial that researchers and innovators remain reflexive—constantly evaluating the societal impacts of their work—and responsive to evolving ethical, legal, and social landscapes. These principles form the core of Human Practices in the iGEM Competition. This panel will bring together diverse perspectives to explore strategies for fostering more dynamic and adaptive research practices. We will discuss how researchers can better integrate reflexivity and responsiveness into the innovation process, ensuring that emerging technologies develop in ways that are socially responsible and aligned with public values.https://static.igem.org/peertube/streaming-playlists/hls/b7a0d33a-6e3c-4d47-86d0-c6ebd325ec6d/52f3ebbc-385d-41ad-940c-988d74b65da1-master.m3u8https://video.igem.org/videos/embed/oFamNYDGePKHHQBZn8PAo23834022024-12-04T01:52:04.045ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/mTXD8gDUvNP5ZAYdhyLrGhhttps://video.igem.org/lazy-static/thumbnails/39d0fe5c-9d1b-470d-ba04-989f00ad7bab.jpgNavigating Career Paths in Synthetic BiologyGain insights from experts in consultancy, venture capital, startups, and the wider SynBio community on emerging career paths, and discover what’s next in this fast-growing field.https://static.igem.org/peertube/streaming-playlists/hls/a937feb1-6e1e-4391-8fa4-57225a325784/7f037b76-e424-4a77-985b-f7febf66d4c1-master.m3u8https://video.igem.org/videos/embed/mTXD8gDUvNP5ZAYdhyLrGh3915052024-12-04T01:46:06.985ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/uhMosmbXw33rfrtvh6tJvchttps://video.igem.org/lazy-static/thumbnails/a22aa0f9-7a93-4ee9-956e-28a43dcc1378.jpgYouth and Education for Biosecurity, Biosafety, and Global PolicyAs rapid innovation in biotechnology presents significant global challenges for biosafety and biosecurity, today's youth and educational initiatives will play a key role in shaping tomorrow's solutions. We are convening stakeholders from across the globe to explore how they are fostering diverse, multi-sectoral communities dedicated to mitigating risks from biological and emerging technologies and enhancing biosecurity, biosafety, and global policy. Our goal is to offer professional development opportunities, foster diversity, equity, and inclusion, and promote dialogue on strengthening international capacities to prevent, detect, and respond to both accidental and deliberate threats that might arise from biological and emerging technologies.https://static.igem.org/peertube/streaming-playlists/hls/e517c0ed-411a-4758-8ba0-27a95176f5cd/bb143174-d900-4f2f-8691-00f759c1c405-master.m3u8https://video.igem.org/videos/embed/uhMosmbXw33rfrtvh6tJvc5221052024-12-03T08:44:28.264ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/t7iszoeML89EUzEp6jtDgFhttps://video.igem.org/lazy-static/thumbnails/3c5a0941-79c5-44e3-9f61-066e9ff4eb0d.jpgPublishing Workshop for Early-Stage Researchers and StudentsAre you an early-stage researcher or student looking to navigate the complex world of academic publishing? Join us for an in-depth Publishing Workshop designed to give you a comprehensive overview and practical insights into the publication process!https://static.igem.org/peertube/streaming-playlists/hls/db87f726-e917-4b5f-9c11-0c19899712f9/2492ab03-47b4-4457-8f95-915cfbcd83de-master.m3u8https://video.igem.org/videos/embed/t7iszoeML89EUzEp6jtDgF5522022024-12-03T08:55:40.198ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/eqaW9KVVPSphpgMeqhVx2Whttps://video.igem.org/lazy-static/thumbnails/445c72a7-a69d-4e28-b9dc-6f7e142a0463.jpgFinal Day Show: Part 1 - All Finalist Presentations | iGEM 2024Final Day Show: Part 1 - All Finalist Presentations | iGEM 2024https://static.igem.org/peertube/streaming-playlists/hls/6ca6c65e-a48f-49d7-b8e4-13a7ee96a0d4/59a7fd5d-b82d-433d-8355-b71301b81356-master.m3u8https://video.igem.org/videos/embed/eqaW9KVVPSphpgMeqhVx2W60090612024-12-04T02:33:31.577ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/dPTwv2pwFN7UEfxSrYHRS6https://video.igem.org/lazy-static/thumbnails/a8cd16d0-71b9-40ec-8540-c47f367f4192.jpgImage-Based Machine Learning of Keratin-Intermediate Filaments: A Novel Tool for Skin Cancer Meta...This project aims to develop an innovative machine learning model to predict skin cancer metastasis by analyzing keratin filament structures in keratinocytes. Skin cancer is a prevalent global health issue, with millions of cases diagnosed annually. While less lethal than other cancers, its potential to metastasize poses a significant threat. Current prognostic methods have limitations, including reliance on traditional examinations, pathologist shortages, and potential for false results. The project focuses on keratin, a family of proteins crucial for cell mechanics and signaling, as changes in keratin expression have been linked to increased cancer cell invasiveness and metastatic potential. By leveraging image-based machine learning to assess keratin structural features, the goal is to create a more accurate prediction tool for metastatic potential, enhancing risk stratification and guiding treatment decisions in skin cancer management.https://static.igem.org/peertube/streaming-playlists/hls/67dd6003-9b6c-461a-a476-fd607dee3fc5/9a8ee8c7-a126-4913-a3b8-501292959271-master.m3u8https://video.igem.org/videos/embed/dPTwv2pwFN7UEfxSrYHRS65830252024-12-04T19:49:01.869ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3GJy7TevsBEAFcZfv3LEaZhttps://video.igem.org/lazy-static/thumbnails/7abd4fe0-b5c3-47e6-9d2f-61151830aee3.jpgSAC: Standardized AI-Powered Platform for Carbon-Negative Spider Silk Production – Weaving Innova...Discover how NTU-Taiwan’s SAC project is revolutionizing the production of spider silk through AI-driven innovation. By creating a carbon-negative, scalable, and customizable biomaterial, we’re addressing critical environmental challenges while meeting the diverse needs of various industries. Join us on our journey to weave a more sustainable future.https://static.igem.org/peertube/streaming-playlists/hls/15e240b8-555f-497c-9e81-172c8094d8bb/5bc4a616-36f8-4079-a237-15b04f68fea5-master.m3u8https://video.igem.org/videos/embed/3GJy7TevsBEAFcZfv3LEaZ529022024-12-03T10:49:14.618ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/u8rcvkAsDC37eYjix4ekK4https://video.igem.org/lazy-static/thumbnails/27ac6f2a-7ecf-40e3-99e7-cea644ef9c42.jpgMetabolic engineering and synthetic biology ​approaches for L-DOPA ​production in Nicotiana benth...Our project explores innovative approaches to produce and test L-DOPA, a critical drug for Parkinson's disease treatment, using plant-based methods. In the first experiment, total RNA was extracted from beet. Then the BvAD6 and BvADH genes were cloned into plasmid vectors, and introduced into Agrobacterium tumefaciens. These transformed bacteria were then used to infiltrate Nicotiana benthamiana. The infiltrated leaves were analyzed to assess L-DOPA content using HPLC. Building on this, the second experiment tested the efficacy of the L-DOPA in treating Parkinson-like symptoms in zebrafish embryos. L-DOPA was obtained from tobacco overexpressing L-DOPA, as well as from industrial synthesis. The study aimed to validate the potential of transgenic plants to produce sufficient quantities of L-DOPA and to assess and to evaluate whether plant-derived neurodegenerative drugs are more effective than industrially synthesized drugs in alleviating symptoms of related diseases.https://static.igem.org/peertube/streaming-playlists/hls/e3c99e30-0f6c-49ee-b052-2e8d1f963645/68bf65a8-ad67-44c5-a7a8-4e4eae05bdad-master.m3u8https://video.igem.org/videos/embed/u8rcvkAsDC37eYjix4ekK4617072024-12-03T10:49:28.464ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/wDNFSauaWdGhBdVhm3PCNRhttps://video.igem.org/lazy-static/thumbnails/c19abfa2-2b79-4fc2-a379-974cf38835f2.jpgTargeting Antimicrobial Resistance Genes using Toehold Switch Detection, RNA-Based Silencing Syst...In recent years, there has been a rapid emergence of antimicrobial resistance (AMR) at a global scale. Therefore, it is of great importance to develop new strategies to combat infections caused by antimicrobial resistant bacteria. The aim of this project is to develop a detection system utilizing toehold switches, and to establish an RNA-based gene silencing system. The ambition was to create and examine the efficacy of four different RNA-based silencing systems: sRNA, hammerhead RNA, CRISPR/Cas9, and CRISPR/Cas13a. Three antibiotic resistance genes, AAC(6’)-Ib, ErmC, and Tet(A), were chosen for the purpose of testing these systems. Our results demonstrate that the sRNA system successfully represses the expression of ErmC and Tet(A), restoring the susceptibility of these bacteria to antibiotic treatment. Additionally, we explored a novel approach of transforming plasmid DNA using graphene oxide.https://static.igem.org/peertube/streaming-playlists/hls/f839738d-676c-437a-b788-4495dead8625/f8e543f6-5de1-45d2-9287-3eb533e4f589-master.m3u8https://video.igem.org/videos/embed/wDNFSauaWdGhBdVhm3PCNR8010102024-12-03T10:49:54.595ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nEK9DaRD884bFBo9uZxhFyhttps://video.igem.org/lazy-static/thumbnails/a5d8f7b7-4ee3-4804-b1df-a386a05cbbc8.jpgEnrichment of lanthanides for electronic waste recycling by engineering a chemotactic system in M...Less than 10% of rare earth metals are recycled from electronic waste. We present an engineered strain of Methylobacterium extorquens that is able to enrich lanthanides from a homogenous mixture. M. extorquens was engineered to display chemotaxis towards the affordable amino acid aspartate. This biological system facilitates the movement of lanthanides towards an aspartate plug. Lanthanide uptake was optimised via the expression of the protein LanM, which reduces the cellular stress caused by lanthanides. Genetic engineering parameters were informed by mathematical and computational models, including a gene regulatory network model; agent-based and PDE models were also employed to evaluate the experimental setup. This concept can be implemented industrially to enrich lanthanides from electronic waste for recycling. Additionally, the principles can be applied to other biologically rare elements in the same waste mixture to enrich multiple metals simultaneously.https://static.igem.org/peertube/streaming-playlists/hls/af78c441-73da-4367-81f3-3d5a74eb6e1e/6623b514-b13b-4f76-aa4f-ba084bc4e835-master.m3u8https://video.igem.org/videos/embed/nEK9DaRD884bFBo9uZxhFy596052024-12-03T10:50:09.862ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/iqLDZh7YXipv31rfeUtD1Dhttps://video.igem.org/lazy-static/thumbnails/cd9910cc-8cdf-48d4-85e6-ac65ec3c3261.jpgNatronaut: Harnessing Nitrate Assimilation for Single Cell Protein (SCP) Production and Coastal E...MSP-Maastricht is addressing coastal eutrophication, a local and global issue. Excessive fertiliser run-off from agriculture, a key economic sector of the Netherlands’ economy, has polluted waterways, spreading into marine ecosystems. This leads to ocean acidification, anoxia, and harmful algal blooms, which intensify climate change and disrupt biodiversity. Natronaut focuses on engineering the marine bacterium Vibrio natriegens to mitigate nitrate pollution in coastal waters. By harnessing its rapid growth and metabolic capacity, we aim to assimilate excess nitrates and convert them into single-cell proteins (SCPs), which can serve as sustainable livestock feed. This innovation reduces the need for conventional feed crops and fertilisers, promoting resource efficiency and circularity. Our project addresses the environmental challenge of eutrophication by not only reducing eutrophication but also working to prevent its recurrence. Ultimately, we aim to convert agricultural waste into valuable biomass, turning the tide on nitrate pollution.https://static.igem.org/peertube/streaming-playlists/hls/8d20ba30-06cd-49ec-8839-69609a6576f1/11114cf3-c54f-4703-be23-17dc5caf2976-master.m3u8https://video.igem.org/videos/embed/iqLDZh7YXipv31rfeUtD1D6210132024-12-03T10:50:35.191ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/qGkJ4K9fod9LoLVwAh2nqrhttps://video.igem.org/lazy-static/thumbnails/42089d67-ccc8-4bb4-8e68-d919a5cbd93b.jpgHeart Bodyguard: Yeast heterologous synthesis of active ingredients of SalviaThe incidence of myocarditis has increased after COVID-19, posing a threat to public health. Traditional Chinese medicine, Salvia miltiorrhiza (Danshen), its active compounds, such as tanshinone, and a similar structure diterpenoid carnosic acid, which is also extracted from Salvia, have proven effective in treating cardiovascular diseases, including anti-inflammatory and cardioprotective benefits. However, traditional production methods are limited by high cost and time-consuming. To address this issue, we use Saccharomyces cerevisiae, leveraging its inherent MVA pathway to construct a novel synthetic pathway for the efficient production of tanshinone and carnosic acid. This sustainable, scalable method may revolutionize cardiovascular drug production, expanding applications in drug development and combating cardiovascular and cerebrovascular diseases.https://static.igem.org/peertube/streaming-playlists/hls/c7fd3c19-10f2-474a-bb37-0d74d86863e5/c497351a-7563-4d78-b8cb-5ba56ef07cf0-master.m3u8https://video.igem.org/videos/embed/qGkJ4K9fod9LoLVwAh2nqr5890392024-12-04T20:08:59.459ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/nPswg8SJGKNaieTkcqJj52https://video.igem.org/lazy-static/thumbnails/d7caec42-7d00-4f5a-8814-2b6dfd04736b.jpgBALANcE: Bowel Anti-inflammatory for Livestock utilizing Antimicrobial-peptide-based EcNOur team visited a ranch and deepened our understanding of how chronic enteritis affects livestock production. We found that livestock suffering from chronic enteritis often exhibit significant dysbiosis of gut microbiota and strong inflammatory responses, similar to human inflammatory bowel disease (IBD). Given the similarities between chronic enteritis of livestock and human IBD, we drew inspiration from the more mature human IBD therapy ideas to develop an efficient and low-cost treatment strategy for livestock. We utilized Escherichia coli Nissle 1917 with the SoxR/SoxS oxidative stress-type promoter to synthesize and secrete antimicrobial peptides (AMP) and Anti-TNF-α, reducing intestinal mucosa inflammation by targeting harmful bacteria and inflammatory factors. We engineered a PhiX174E cleavage protein module to release AMP and Anti-TNF-α extracellularly at the right time, and we confirmed its effectiveness through modelling. For biosafety, we also designed a suicide switch to prevent engineered strains from polluting the environment.https://static.igem.org/peertube/streaming-playlists/hls/b0b036b1-fa28-4946-a67f-0362422db8a1/537143cf-9666-4685-9091-f40c819f5de7-master.m3u8https://video.igem.org/videos/embed/nPswg8SJGKNaieTkcqJj526140202024-12-03T12:30:02.325ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jTAw78SvMmA3sZFjbWdzzzhttps://video.igem.org/lazy-static/thumbnails/681b077f-1cf6-4ee2-85ad-df0f6a323788.jpgGood practice to overcome difficulties during the iGEM projectWe will talk about the challenges we encountered during our project process. The first one is our team composition, how 9 biology students finished all the work of wet lab and dry lab. Second is the challenge we met in the laboratory, our experiment involves many parts and is very complicated, so we inevitably encounter failure in the process of completion, how do we overcome it? You will find a solution in our talk.https://static.igem.org/peertube/streaming-playlists/hls/98f8b387-100a-4631-8b6c-87aaff432bbf/faf37587-9735-4837-bf73-9f1c571d805b-master.m3u8https://video.igem.org/videos/embed/jTAw78SvMmA3sZFjbWdzzz624062024-12-03T12:31:29.301ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9evndQSGhtR64WGpu17hRqhttps://video.igem.org/lazy-static/thumbnails/b84e7f34-bbab-4e3a-9337-8f988d863428.jpgRose flavonoids tea bags help circadian rhythms disrupted people staying away from ADDue to increased pressures, staying up late and insomnia have become common across all age groups. This chronic circadian rhythms disruptions are proven to accelerate pathological progression of Alzheimer's disease (AD). What can we do in suppressing the adverse progression? In our previous study, by using an AD mouse model with artificially disrupted circadian rhythms, we proved that rose flavonoids had significant inhibitory effects on the adverse progression. Thus, in the present project, we create "ROSE” plan to develop functional tea drinks and alleviates circadian rhythms disruption injuries, including: Firstly, Recreate an cellular AD model with Aβ42 protein; secondely, Observe and identify specific genes by transcriptomics; thirdly, Supplement rose flavonoids into cells and measure expression levels of protein and signal pathway; lastly, Evaluate the inhibitory effects on AD progression and prepare functional tea. Our team innovatively provides dietary intake regulations in reducing AD risk of circadian rhythms disrupted people.https://static.igem.org/peertube/streaming-playlists/hls/42abe02b-4a6f-4e94-bfd5-d3c118a89ba2/ca8a6e78-d987-4237-af41-86ac3c9cbce6-master.m3u8https://video.igem.org/videos/embed/9evndQSGhtR64WGpu17hRq473022024-12-03T12:32:16.789ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/vNe8k8wevTyxjpYeAJtBVrhttps://video.igem.org/lazy-static/thumbnails/a5cf0e87-95a4-476f-81ea-b6c6a5d6fb00.jpgEnhancing Bone Repair: Solving the Burst Release Problem in Regenerative Materials with Fusion-Ex...Bone injuries, scoliosis, and bone defects are major health issues in China, caused by trauma, infections, tumors, or congenital diseases, causing functional impairment and pain. Current treatments like autografts, allografts, and artificial bone materials have limitations. Autografts are limited by donor availability and need extra surgery. Allografts risk rejection and infection. Artificial bone materials lack biocompatibility and bioactive components. Our study aims to develop a dual-cell factor(VEGF&BMP-4) release system with collagen-binding properties, addressing the limitations of artificial bone materials, to ensure safe and rapid bone formation, reducing risks of oncogenesis and ectopic ossification. The innovative dual-cell factor release design allows for the enhancement of repair efficacy while reducing the side effects associated with non-sequential release, to offer a far more efficient and safer bone repair solution. The proposed system illustrates significant potential for broad clinical applications, by elevating and refining the treatment of bone defects and associated conditions.https://static.igem.org/peertube/streaming-playlists/hls/f14d52f0-1f0c-43ac-87ae-a8ca4490725f/b7decb86-b9a7-46e8-b5d5-b5d0292c9294-master.m3u8https://video.igem.org/videos/embed/vNe8k8wevTyxjpYeAJtBVr540062024-12-03T12:32:57.950ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/x3YhqnM6p5MXkKoyNzYqZPhttps://video.igem.org/lazy-static/thumbnails/129f3707-b4b0-4243-a8b7-6eed792ff49c.jpgSanalgesicThere are over 300 million cases of General Anxiety Disorder (GAD) worldwide, causing stress and physical symptoms like pain and insomnia. Aromatherapy, particularly with Sandalwood album oil (SAO), can help relieve these issues. However, SAO is scarce and expensive due to low yields and the endangered status of its source plant. We aim to address this by engineering E. Coli and C.Serevisiae to produce SAO’s key chemicals, creating a sustainable and accessible alternative to traditional methods that take 25-30 years. This project could make SAO’s therapeutic benefits more widely available.https://static.igem.org/peertube/streaming-playlists/hls/fb7578c1-2943-4949-a40d-4299da5c1f09/8f8c6d11-6d9e-4ed2-9f53-b1a68c674c2d-master.m3u8https://video.igem.org/videos/embed/x3YhqnM6p5MXkKoyNzYqZP648052024-12-03T12:33:44.997ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/enVL8JLpNjR8PhynTFki2rhttps://video.igem.org/lazy-static/thumbnails/7a4f516c-1819-496a-b06f-6317c969a606.jpgAgroNeedle: Harnessing Synthetic Biology and Microneedle Technology for Advanced Antimicrobial So...AgroNeedle integrates synthetic biology with microneedle technology to deliver nutrients, pesticides, and antimicrobial agents directly to plants, revolutionizing agricultural practices. By enabling precise, localized delivery, this approach enhances the efficiency of nutrient and pesticide use while minimizing environmental impact, such as runoff and overuse of chemicals. The microneedles, designed for plant-specific applications, allow controlled release of agrochemicals, promoting sustainable farming practices. Additionally, leveraging synthetic biology enables the incorporation of advanced antimicrobial solutions, targeting plant pathogens effectively while reducing the reliance on traditional chemical treatments, contributing to healthier crops and ecosystems.https://static.igem.org/peertube/streaming-playlists/hls/6c568d97-98ce-4e84-b851-daa485d62a3f/8c413784-6f95-424e-b5f4-483a05a8f55d-master.m3u8https://video.igem.org/videos/embed/enVL8JLpNjR8PhynTFki2r502002024-12-03T12:34:31.248ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/ivCb5tNRU2Dy9mV5Dho8nZhttps://video.igem.org/lazy-static/thumbnails/02d85b48-3d70-4913-aa3d-42d5ffa931d5.jpgLUNA PadOur project, Luna Pad, addresses the critical issue of late diagnoses of gynecological diseases by transforming menstrual pads into non-invasive screening tools. Integrating test strips that utilize lateral flow assay technology, the pads detect biomarkers such as CA126 and IL-6, indicative of inflammations and cancers. We adopted single-chain variable fragment (scFv) antibodies designs for improved synthesis in E. coli. Designed for ease of use and affordability, the Luna Pad aims to encourage regular health monitoring and early detection, potentially saving lives by prompting necessary medical interventions.https://static.igem.org/peertube/streaming-playlists/hls/8dce382b-6a91-442c-ac0b-bed9c57cd307/571006c5-bc6a-46d0-a36c-9d85ef733c97-master.m3u8https://video.igem.org/videos/embed/ivCb5tNRU2Dy9mV5Dho8nZ6850192024-12-04T20:05:34.110ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rHtPJ27egyRBzkcEhVPv9Nhttps://video.igem.org/lazy-static/thumbnails/8ae26bb8-287a-404c-9931-222ca12ac9c8.jpgNanoDisguiser: Redefining Broad-Spectrum Antiviral Therapy with Nanodisc Technology PlatformNanodiscs are tiny, disk-shaped structures engineered as drugs, antibodies, or in vitro biological components. Our project introduces a groundbreaking nanodisc-based antiviral therapy, NanoDisguiser, designed to tackle the limitations of traditional methods, such as viral drug resistance. By using broad-spectrum nanodiscs therapy with virus-specific receptors, these nanodiscs act as decoys, luring and disrupting viruses before they can infect cells. This cutting-edge approach provides a powerful and versatile defense against a wide range of viruses, including new and mutant strains. We're also working to validate and commercialize this technology as an injectable antiviral solution, aiming to redefine antiviral therapy in a post-pandemic world.https://static.igem.org/peertube/streaming-playlists/hls/d03f1b85-3660-4a4b-84bf-9a1372b8fcba/36e39cc7-e703-4d6e-ade4-bb83629750e1-master.m3u8https://video.igem.org/videos/embed/rHtPJ27egyRBzkcEhVPv9N5680432024-12-03T12:35:53.892ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/tpnzZ1ux5JiB4XvTtT8GxKhttps://video.igem.org/lazy-static/thumbnails/e9c056de-6f21-40d7-9712-d979671a12a3.jpgClick VirusTo reduce the difficulty of mammalian virus engineering in synthetic biology, we have successfully created an easy-to-customize viral chassis, named Click Virus, based on the principles of artificial translation and click reaction. Click Virus is a genetically engineered vaccinia virus with modified A27L membrane protein containing three 4-azido-L-phenylalanine (AzF) residues. To incorporate the unnatural amino acid AzF to A27L, we mutated three phenylalanine codons to amber suppressor codons (TAG) which were then translated into AzF by an artificial translation system involving amber suppressor tRNA and azidophenylalanine-specific tyrosyl-tRNA synthetase. The azido groups can be covalently linked to any customized molecules via click reactions of azido and dibenzocyclooctyne (DBCO), to obtain different engineered viruses for a wide variety of applications, such as targeting delivery of genes, oncolytic virus and vaccine carrier. Using folate-linked Click Virus, we achieved the directed infection to cells overexpressing folate receptors, preliminarily verifying the reliability of Click Virus.https://static.igem.org/peertube/streaming-playlists/hls/ddea2740-06ef-4520-a6fe-795aeabcf639/431ddccc-728d-49f5-95f2-845c0c9ddc9d-master.m3u8https://video.igem.org/videos/embed/tpnzZ1ux5JiB4XvTtT8GxK6050152024-12-04T20:01:23.396ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/oXw5K9iZDzfd1oywnd9hMFhttps://video.igem.org/lazy-static/thumbnails/23c063fd-3301-4451-b683-59a2d971a925.jpgHuman PracticesWe have received suggestions from the art world to optimize the safety of our projects by organizing a bio art event. Our market research combined with data analysis work provides basic support for our product requirements and project safety assessment. We have established long-term and stable cooperative and exchange relationships with four other iGEM teams from different provinces in China.https://static.igem.org/peertube/streaming-playlists/hls/b9e97f16-2840-47e4-8143-35e001c1a239/0f45812a-5d79-47c6-a185-8d5b4a2445f7-master.m3u8https://video.igem.org/videos/embed/oXw5K9iZDzfd1oywnd9hMF200062024-12-03T12:37:16.121ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/eXC3nfxjCTX4HhjawKQ31khttps://video.igem.org/lazy-static/thumbnails/28f31bb8-b375-4a21-bed9-499e658408ab.jpgCAP'siRNA - A bioinspired solution against Virus Yellows disease to preserve sugar beetsFood security faces threats from emerging agricultural diseases, particularly Virus Yellows, which significantly impacts sugar beet crops, reducing yields by up to 40% and causing localized losses of up to 90% due to the Beet Yellows Virus (BYV). We developed CAP'siRNA, a solution based on RNA interference, a natural defense mechanism present in plants. We engineered Escherichia coli to produce long hairpin RNA (lhRNA) precursors that specifically target the RNA-dependent RNA polymerase and P21, an RNA interference suppressor gene. These lhRNAs are processed by the plant's machinery, ultimately degrading the viral genome of BYV. These lhRNAs include an Origin of Assembly Sequence, which allows Tobacco Mosaic Virus coat proteins - produced by engineered E. coli - to form a capsid around the lhRNAs, protecting them from the environment. CAP'siRNA is non-GMO, biodegradable, and targets only the virus. Furthermore, this platform can adapt to combat other viral diseases in crops.https://static.igem.org/peertube/streaming-playlists/hls/710aebbd-9b6d-454b-a131-50b99f9e7f8b/9615450b-f550-49e6-b6c3-9806fac5b953-master.m3u8https://video.igem.org/videos/embed/eXC3nfxjCTX4HhjawKQ31k6900352024-12-04T19:58:48.765ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bSxdosNeS2Z66htBY32DRxhttps://video.igem.org/lazy-static/thumbnails/33bc00ab-efb1-4503-ab48-2c8f66bc001f.jpgBuilding synthetic cells with the Nucleus cell-development kitNucleus enables synthetic cell engineering by creating an open source platform for building fully defined synthetic cell systems and supporting a community of co-developers advancing this platform to replicate and surpass the capability of natural cells. We are refactoring, optimizing, and integrating now disjoint and incomplete protocols, materials, and building complementary design and analysis tools to make synthetic cell engineering reliable, reproducible, and accessible. Our open source and open access beta distribution, Nucleus v0.2.0, enables research groups to quickly begin engineering with synthetic cells using integrated and validated protocols, materials, and tools for (1) PURE cytosol production, (2) DNA module implementation, and (3) liposome encapsulation. We are developing and releasing increasingly capable synthetic cell tools and materials to support researchers and engineers and are excited to work with others to routinize synthetic cell engineering. Compared with cell-based systems, synthetic cells based on liposome encapsulation of a defined cell-free transcription translation system offer highly controllable environments that are amenable to modeling, facilitate rapid prototyping, and resist biological evolution.https://static.igem.org/peertube/streaming-playlists/hls/5809cfa7-67ed-4d53-91de-216d096054f5/f62c0a05-18ef-490c-bb47-e7d2e902b562-master.m3u8https://video.igem.org/videos/embed/bSxdosNeS2Z66htBY32DRx776032024-12-04T00:30:25.564ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/sLHLL1vbYcvx3Khu9LhY1Ehttps://video.igem.org/lazy-static/thumbnails/659489e3-d52b-49e1-93cb-5141906e4fc0.jpgFinal Day - Awards Show | iGEM 2024Oct 26, 2024 - iGEM Grand Jamboree (Paris) https://jamboree.igem.org/2024 The original BioBrick Trophy was created in 2006 by iGEM Founder, Tom Knight, at MIT. Every year since, the name of the iGEM Grand Prize Winner has been engraved on the trophy, which is then sent to the winning team to showcase and safeguard for the year, until the next winner is announced. The trophy is passed on: winner to winner, year after year. After 18 years, the original aluminum trophy has become fully engraved, marking the end of its journey. In 2024, a new Titanium-made BioBrick Trophy was revealed, honoring the achievements of the first 18 winners and opening a new chapter at iGEM. It was designed and produced across four countries (France, Mexico, China, USA) reflecting iGEM’s international spirit.https://static.igem.org/peertube/streaming-playlists/hls/d8cc12e2-592e-4993-82d6-69b91452d846/969fd821-9404-42a5-84de-838e56c91c28-master.m3u8https://video.igem.org/videos/embed/sLHLL1vbYcvx3Khu9LhY1E702204112024-12-04T08:41:00.567ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/5oeg8GctPZQz6XNdnmdukqhttps://video.igem.org/lazy-static/thumbnails/5b9d9f54-e143-4a9c-9326-98a455dd9d56.jpgBest Judge Awards | IGEM 2024Best Judge Awards | IGEM 2024https://static.igem.org/peertube/streaming-playlists/hls/237f1703-fd15-4f0f-9fe5-66dcf7be5496/8ad20846-ed4a-4da3-bf27-a5577ca68955-master.m3u8https://video.igem.org/videos/embed/5oeg8GctPZQz6XNdnmdukq1620142024-12-04T00:55:39.551ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/ppnDGRPi3wXNY44euVzk57https://video.igem.org/lazy-static/thumbnails/34a0855a-6acd-4e9d-a949-765161a55850.jpgPennState: Judging Session (2024)[Wiki](https://2024.igem.wiki/pennstate)https://static.igem.org/peertube/streaming-playlists/hls/bd85a362-a175-41ca-bc34-0d98852e5f52/77c27d39-c61e-40e1-aa2d-3350a5bd5494-master.m3u8https://video.igem.org/videos/embed/ppnDGRPi3wXNY44euVzk571766082024-12-03T17:51:16.098ZYES2024 Judging SessionsNOhttps://video.igem.org/w/jttLLoPWhXmrVeTYNH2yAzhttps://video.igem.org/lazy-static/thumbnails/27be380d-ea33-4bc0-9cee-ca65af2c0ca6.jpgTU-Delft: Judging Session (2024)[Wiki](https://2024.igem.wiki/tu-delft)https://static.igem.org/peertube/streaming-playlists/hls/959ab152-3049-45a4-b7ca-18bb8153594d/c8942f93-add6-4947-b0d5-055ffc57c6cd-master.m3u8https://video.igem.org/videos/embed/jttLLoPWhXmrVeTYNH2yAz1595072024-12-03T18:01:05.494ZYES2024 Judging SessionsNOhttps://video.igem.org/w/vrc8nr9gFK4EHCniz5EsX6https://video.igem.org/lazy-static/thumbnails/4917c8b2-13a1-475a-9680-bae65011369c.jpgNeuroMuSceteer: "all for one" against Multiple SclerosisMultiple Sclerosis is an increasingly prominent, multifactorial disease that affects almost 3 million people worldwide,with that number being expected to increase exponentially. Its treatment is currently centered around symptom management and decelerating its progression, as there is no available cure. Recognising this major gap in modern therapeutics, we developed NeuroMuSceteer; a modular, precision medicine, holistic therapy. It involves T- cells that are engineered to selectively target specific disease antibodies and act as immune regulators (Tregs),boosting the immune system and the CNS. Furthermore, we included two molecular structures, one that detects and one that releases microRNA agents in target cells, repairing nerve damage. The design was made in collaboration with various stakeholders in both research and healthcare, with the purpose of tackling all aspects of Multiple Sclerosis with accuracy and safety. Its modularity also allows it to be adapted for various autoimmune disorders, making it a useful tool for future researchers.https://static.igem.org/peertube/streaming-playlists/hls/ee5d7901-ddaa-4285-9ffc-b2fbbb9f76b3/2e360d4f-a25e-4801-9502-2fd04b3a0375-master.m3u8https://video.igem.org/videos/embed/vrc8nr9gFK4EHCniz5EsX6323042024-12-03T18:02:51.866ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/9w6JUxM2VfCRc1dzZQPRGihttps://video.igem.org/lazy-static/thumbnails/9dd6aa40-b803-44de-a63e-b31bec957a66.jpgHERMES - An Improved Bacterial Delivery System for Targeting Solid TumoursCancer remains the second leading cause of death worldwide. Chemotherapy, radiotherapy, and surgery remain front line treatments however, their systemic toxicity remains a notable concern as over 65% of patients suffer from severe adverse side effects. McMaster_Canada aims to utilize the oncogenic nature of bacteria to develop Hermes, a platform technology that localizes and regulates therapeutic delivery at the tumour site. Our team designed a synthetic protien inspired by FAP2 on Fusobacterium nucleatum (F. nucleatum/Fn), that allows the our chassis, E. coli Nissle 1917, to colonize and co-exist in the tumour by binding to the overexpressed sugars - Gal-GalnAC. Once colonized, Hermes is equipped with a tumour microenvironment sensor that selectively triggers the production of a therapeutic agent at the site of the tumour. Using Hermes, we aim to improve clinical application of in-sera bacterial delivery system by reducing the dosage while maintain specificity for tumour colonization.https://static.igem.org/peertube/streaming-playlists/hls/44fcf5aa-6e3e-4af5-86eb-3a60cd00cc3d/0c519f70-db95-4057-a6ff-d545b0e63f70-master.m3u8https://video.igem.org/videos/embed/9w6JUxM2VfCRc1dzZQPRGi6580282024-12-04T20:02:46.657ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/fPKud9GvBNUdon2fbwEjSohttps://video.igem.org/lazy-static/thumbnails/e149fa2c-808c-4178-afb2-cf6358b63c54.jpgFluorofighters: A novel protein designed to bind and excrete PFAS from the bloodOur team aims to develop a therapeutic protein designed to eliminate concentrations of perfluoroalkyl substances (PFAS), with a specific focus on targeting perfluorooctanoic acid (PFOA). Our novel protein is designed to work by binding to PFOA in the bloodstream and then removing it by excretion into the mucosa. This involves engineering a novel chimeric protein with two domains: one has a high affinity for PFOA while the other facilitates transcytosis of the whole peptide. After binding to PFOA in the bloodstream, this protein will facilitate its transcytosis across epithelial cells for excretion via the mucosal lining.https://static.igem.org/peertube/streaming-playlists/hls/780ab2a6-cee6-47dd-9f9f-509e69ddbd02/eca4a785-b197-48dc-9dd5-bc435ba7db4b-master.m3u8https://video.igem.org/videos/embed/fPKud9GvBNUdon2fbwEjSo6070252024-12-04T19:56:26.312ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/jPExcXCXszejxY5nHEQQufhttps://video.igem.org/lazy-static/thumbnails/850afb26-1583-4313-85ef-28af7f32bed8.jpgCHELOEarly detection of diseases is crucial to ensure timely treatment and avoid severe outcomes. To address this, we developed CHELO, a device capable of detecting multiple diseases using biosensors. We focused on leukemia, where hematopoietic stem cells abnormally proliferate, affecting the patient's health. Each year, around 29,000 adults and 2,000 children are diagnosed with leukemia, with acute cases progressing rapidly and requiring early detection. Our project identifies biomarkers for AML using our model, Artemis' Eye. We discovered CD97 as a key biomarker and designed short peptides that bind to it. These peptides are expressed on our engineered E. coli, BELO. When CD97 binds to these peptides, BELO emits an electrical signal, indicating detection. This system alerts users to potential disease risks, enabling prompt medical attention. In the future, we aim to optimize the peptides, broaden disease detection, and enhance accuracy, helping patients worldwide receive timely treatment.https://static.igem.org/peertube/streaming-playlists/hls/986c33f6-763f-498b-b210-c231b73d16e6/fe118838-1fbe-40bb-8409-ac65b2afcaa6-master.m3u8https://video.igem.org/videos/embed/jPExcXCXszejxY5nHEQQuf603052024-12-03T18:03:19.371ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/bUUqsDpU9WASwwYTMmNrFwhttps://video.igem.org/lazy-static/thumbnails/a9e2a579-445c-4649-a596-d44caeab5ff0.jpgEngineering probiotic OMVs with encapsulated CRISPR/Cas9 ribonucleoproteins for targeted gene edi...Gram-negative bacteria naturally produce spherical nanovesicles known as outer membrane vesicles (OMVs) during their growth. These OMVs, due to their nanoscale size, efficient cellular uptake, and ability to protect biomolecules, are ideal for drug delivery. In this project, we aim to genetically modify E. coli Nissle 1917 (ECN) to produce OMVs with surface-displayed targeting elements and encapsulated Cas9 RNPs. By filtering through molecular sieves, we obtain OMVs capable of targeted gene-editing complex delivery, potentially revolutionizing precision medicine.https://static.igem.org/peertube/streaming-playlists/hls/585e5e61-14a0-47f9-837b-5bbe335783c8/d1327423-13fc-457d-8277-371cd5dfbbce-master.m3u8https://video.igem.org/videos/embed/bUUqsDpU9WASwwYTMmNrFw353022024-12-03T18:03:31.061ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/cupdTADQpDHMcFgX3W1gwZhttps://video.igem.org/lazy-static/thumbnails/e3c8fb56-6941-425b-bdec-bc002c02491a.jpgSpidey Microbe: Adhesion and interaction Network drug-delivery platform for Parkinson's Disease t...We have engineered a superhero—Spidey Microbe. We have analyzed probiotics by constructing databases and software packages, and screened for Escherichia coli Nissle1917, Lactococcus lactis F44, and Lactobacillus plantarum ATCC 8014.This includes a biotin-affinity based gut adhesion system and a quorum sensing-based interaction system, allowing the probiotics to "weave webs" and adhere the gut as well as Spider-man. We aim to design genetic circuits to control the expression of mucin binding protein in EcN and facilitate inter-probiotic adhesion to control Spidey Microbe's "spider silk" in the gut. Additionally, we plan to endow Spidey Microbe with enhanced superpowers, so we are developing cell factories in Lactococcus lactis F44 to express various therapeutic agents. Spidey Microbe will challenge the disease “monsters”—Parkinson's Disease.https://static.igem.org/peertube/streaming-playlists/hls/5d0ba97a-d468-4ed0-b003-e79964f81f01/ded91305-ccf1-4471-ab49-172616c670dd-master.m3u8https://video.igem.org/videos/embed/cupdTADQpDHMcFgX3W1gwZ483032024-12-03T18:03:35.688ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/3S7dfkCGp1wdWXr2dbswnWhttps://video.igem.org/lazy-static/thumbnails/58a3ac20-55f2-4f05-bd93-4f8f6c8ab5d3.jpgCAPTURE: Integrating Ethics and Innovation in Combating P. aeruginosa“Speak, so that I see you.” - Socrates In our 10-minute Live Stage Talk, we will explore how this maxim guides our Integrated Human Practices in our project CAPTURE, which aims to combat P. aeruginosa infections, especially in cystic fibrosis patients. We will demonstrate how our IHP methodology shaped our scientific efforts and ethical considerations throughout the project lifecycle. Our presentation will highlight: The urgent need for treatments for P. aeruginosa and its implications for society. The challenges and opportunities we encountered while integrating diverse perspectives from society, industry, and research. How ethical considerations, prevention strategies and responsible innovation guided our decision-making process. By sharing our experiences, we aim to inspire the iGEM community to take a holistic approach that balances innovation with ethical responsibility and social impact.https://static.igem.org/peertube/streaming-playlists/hls/17314b28-3b4c-474f-bbe8-09fd245c1d20/82e7e95a-f69a-406b-959e-769a694b552f-master.m3u8https://video.igem.org/videos/embed/3S7dfkCGp1wdWXr2dbswnW6000382024-12-04T20:00:30.531ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/7rvHcgxnRpKZq5pqSyP4e8https://video.igem.org/lazy-static/thumbnails/8ec4ebc5-e64a-48f8-8105-8fcd576a68c8.jpgObesity and its impact on global healthA talk on the impact and long-term effects of obesity on global health worldwide.https://static.igem.org/peertube/streaming-playlists/hls/3426bc5d-5dba-4a27-b072-29ed6f7a1a7d/56535aa6-d740-4678-8ac0-5379152aabd1-master.m3u8https://video.igem.org/videos/embed/7rvHcgxnRpKZq5pqSyP4e85040122024-12-03T18:03:52.863ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/c1dRFjRspRVFZcfScnVgSshttps://video.igem.org/lazy-static/thumbnails/39e1d921-266e-4702-a973-05fa0d8b69c0.jpg"Gut Guardian" - A Probiotic Escherichia coli Nissle 1917 That Can Sense and Treat IBDInflammatory bowel disease (IBD) is a chronic intestinal inflammation of unknown etiology and incurable nature. This project utilizes Escherichia coli Nissle 1917 as the chassis cell, employing six functional modules to address IBD. The sensing module, regulated by the SoxR/SoxS promoter, detects excessive NO, ensuring that the gene circuit is activated only in the IBD environment, thereby enhancing safety and specificity. The therapeutic modules include the immune module (PD-L1), adhesion module (Mfp), and antioxidant module (SOD), which are designed to suppress immune responses, repair damaged intestinal tissues, and eliminate reactive oxygen species, respectively. The lysis module automatically lyses probiotic cells upon their accumulation at the inflammation site, releasing therapeutic proteins. The safety module activates the expression of the MazF toxin via a blue light-responsive promoter, ensuring the engineered bacteria die upon excretion, thus mitigating potential risks.https://static.igem.org/peertube/streaming-playlists/hls/591c72c8-65fb-4e61-812b-c3700e1eaf82/7028965a-0279-4637-83ca-125979c10898-master.m3u8https://video.igem.org/videos/embed/c1dRFjRspRVFZcfScnVgSs6010272024-12-04T19:59:47.554ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/hR6fXowMvDgSyNUUmteZJohttps://video.igem.org/lazy-static/thumbnails/10c591b6-b599-44da-bee1-45ceced38335.jpgSONG-H: a modular therapeutic platform for tissue healing using cell-based regenerative medicine ...Burn injuries are devastating wounds associated with serious complications including infection, disfiguring scarring, and contractures which require intensive medical intervention to alleviate their physical and psychological impact. This year, we are tackling this challenge by developing SONG-H (Stem cell-based Occlusive Nutritive Gel of Healing). Our approach is based on promoting the SCs’ regenerative capacities and enhancing the healing process of non-regenerative tissues besides using hyaluronic acid (HA) hydrogel as a scaffold for topical delivery. We integrated two modular devices to control our therapeutic approach. Firstly, we’ve designed a novel programmable receptor that is specific and sensitive to the Vascular Endothelial Growth Factor (VEGF) within the burn microenvironment, which triggers conditioned expression of Yes-Associated Protein (YAP-1) that regulates the differentiation and proliferation rate of SCs. Secondly, we utilized SCs’ exosomal signaling ability to deliver YAP-1 transcripts within our Translation Initiation Device (TID) modular protein-based switch.https://static.igem.org/peertube/streaming-playlists/hls/886ce74f-275b-4af0-a24d-0684ffecc0d6/952903ed-b16a-487c-b2bb-d7ba80702ac8-master.m3u8https://video.igem.org/videos/embed/hR6fXowMvDgSyNUUmteZJo7950142024-12-04T19:53:00.937ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/qC9w12uMRJD2ruafXPHxMehttps://video.igem.org/lazy-static/thumbnails/4e3fcb8e-6f67-4dbf-b69e-341704905f96.jpgBOOMcoli: A Therapeutic Model for Ulcerative Colitis by Probiotic-Mediated Release of IL-10Ulcerative colitis (UC) is a chronic autoimmune disorder of the colon, affecting 5 million people worldwide with increasing incidence. Current treatments, targeting periods of remission and flare-ups, often fall short, with only 20-30% of patients seeing significant improvement. Our project, BOOMcoli, introduces a novel therapeutic model using bioengineered E. coli probiotics for targeted release of IL-10 in the colon. By utilizing a biomarker-sensitive promoter and quorum sensing, our engineered probiotic binds to inflamed sites identified by elevated calprotectin levels, an inflammation marker. Once localized, quorum sensing triggers synchronized lysis, releasing IL-10 precisely in the inflamed areas. BOOMcoli intends for a fast-acting, highly specific, and minimally invasive treatment that can be administered regularly to manage UC symptoms as they arise. Beyond UC, this method could be adapted for other large intestine diseases, including colorectal cancer, or other organs for broader therapeutic applications.https://static.igem.org/peertube/streaming-playlists/hls/c7675a3d-80bb-407d-93b5-cb98771a8553/9d7969a9-e65e-4744-b7c4-9415d5dc8a91-master.m3u8https://video.igem.org/videos/embed/qC9w12uMRJD2ruafXPHxMe7220172024-12-04T20:00:20.969ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/p5t4RiYuMp578ULyDC52n3https://video.igem.org/lazy-static/thumbnails/7c3c8efc-a487-4b65-a081-106e11ef5237.jpgExeter: Judging Session (2024)[Wiki](https://2024.igem.wiki/exeter)https://static.igem.org/peertube/streaming-playlists/hls/bae1d831-d6a6-41fa-8286-c4c87fe538e8/beb8867b-850d-497c-809b-4b85aa79d7f1-master.m3u8https://video.igem.org/videos/embed/p5t4RiYuMp578ULyDC52n316500132024-12-03T18:06:10.427ZYES2024 Judging SessionsNOhttps://video.igem.org/w/aTE6F7jih1ZrNhwMrfiZwKhttps://video.igem.org/lazy-static/thumbnails/8ce86008-ea31-440f-bc38-aa5ec2fb0cac.jpgNucle.io: Redefining Diagnostics in One Reaction for Sepsis PathogensGold-standard sepsis diagnostics take at least three days, while patient condition can deteriorate in a matter of hours. What if complex-panel based diagnostics were simply faster–and could skip the lab entirely? Nucle.io interfaces DNA computing and CRISPR systems to unite biosignature amplification, analysis, and classification in one easy-to-use diagnostic device. With patient blood dropped into a single tube, Nucle.io can tell doctors within hours what pathogen and antimicrobial resistances are infecting a patient. Nucle.io redefines diagnostics in one reaction.https://static.igem.org/peertube/streaming-playlists/hls/5018a8a9-4f11-45b8-8b9f-7934f9a02063/bffaf1ae-c796-453d-add0-a8c288b11c7f-master.m3u8https://video.igem.org/videos/embed/aTE6F7jih1ZrNhwMrfiZwK6470242024-12-04T19:50:08.788ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/pLMJfRqRefDF7bBiwHw1rJhttps://video.igem.org/lazy-static/thumbnails/338e53b1-aa6d-4c4c-b1d7-98de0827901a.jpgSolutions to the Blood Shortage CrisisThe blood shortage crisis is an ongoing global issue that has only worsened since the COVID-19 pandemic. The gap between blood donors and those in need is always growing, and leads to avoidable deaths and tragedies every year. Learn about the complications that cause this crisis, the rocky history of blood substitutes and transfusion products, the current state of research in the field and how our team expanded it, and what YOU can do to get involved.https://static.igem.org/peertube/streaming-playlists/hls/c08318a5-ecc7-468c-85e4-8f01853c5a94/3d8ea620-ac67-4b97-aed3-09eb9951e00b-master.m3u8https://video.igem.org/videos/embed/pLMJfRqRefDF7bBiwHw1rJ649082024-12-03T18:08:09.108ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/scYU4wLf3jtaY2aSDXiYbehttps://video.igem.org/lazy-static/thumbnails/49817c78-c046-42c9-a9c6-418ae214dd75.jpgCFastDx: A Rapid Diagnostic Solution for Cystic FibrosisCystic fibrosis (CF) poses a significant public health challenge, with increasing cases driven by low awareness and late diagnosis. Our research introduces CFastDx, an innovative rapid detection kit designed to identify cystic fibrosis efficiently. Utilizing a straightforward buccal swab process, CFastDx enables quick and accurate diagnosis, improving patient outcomes through early intervention. This project explores the molecular underpinnings of CF, focusing on CFTR gene mutations responsible for its debilitating symptoms. Despite advancements in medical science, the prevalence of CF continues to rise, highlighting the urgent need for better detection methods. By raising awareness and promoting early diagnosis, CFastDx aims to empower individuals and healthcare providers to act swiftly against this genetic disorder. Our approach combines cutting-edge diagnostic technology with community engagement, ensuring that no one faces CF alone and transforming the landscape of CF management for a healthier future.https://static.igem.org/peertube/streaming-playlists/hls/d439d9dc-991e-414e-b635-fc22d11a1169/9fd7ee4b-7bfb-46db-8c0a-9297eb9ff629-master.m3u8https://video.igem.org/videos/embed/scYU4wLf3jtaY2aSDXiYbe6390112024-12-04T20:02:02.547ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/rCf4CQ9KQf4pKQzUXsKDewhttps://video.igem.org/lazy-static/thumbnails/4cf06f0a-39c2-4ae7-9aab-e029b8ca014c.jpgKnight: a designer-cell based drug screening platform for MTNR1A agonist discoveryIn light of an increasingly aging population, numerous of individuals are experiencing insomnia symptoms precipitated by endocrine imbalances. Intensifying pressures and escalating workloads are also disrupting adults’ natural sleep patterns. Insomnia caused by circadian rhythm disorders have emerged as a significant health conundrum. Melatonin is widely recognized as the first-line treatment for insomnia, but excessive consumption can lead to adverse effects like headache and dizziness. Notably, MTNR1A receptors paly a more directly role in regulating circadian rhythms, whereas MTNR1B participate in various physiological activities. A drug specifically targeting the MTNR1A is needed to treat insomnia caused by circadian rhythm disorders. Inspired by synthetic biology principles, an innovative small molecule drug screening platform has been developed. This platform introduces a novel exogenous melatonin signaling pathway, enabling the screening potential MTNR1A agonists and natural essential oils that activate melatonin receptors. Our project provides a robust foundation for developing therapeutic agents targeting insomnia.https://static.igem.org/peertube/streaming-playlists/hls/cf83e89d-41e4-4297-81df-80a7ec87487c/44796728-c065-43e7-b5b4-86d99dacef2b-master.m3u8https://video.igem.org/videos/embed/rCf4CQ9KQf4pKQzUXsKDew793082024-12-04T19:55:25.992ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/iHgRWAo9xWRfisuqwtYU5zhttps://video.igem.org/lazy-static/thumbnails/eeb2f199-a068-4f72-900e-942fb1ce0a4a.jpgMental Health in iGEM: Strategies for a Healthy, High Performing TeamWe would like to shed light on the unique challenges that can be faced by iGEM teams when it comes to mental health. Through our years in iGEM, our team has experienced challenges with matters such as imposter syndrome, stress, burnout, and more. We have grown and adapted to wellbeing strategies to minimize and effectively respond to these aspects, and would like to make other teams aware of this journey as well. We would like to offer practical strategies for teams to support one another’s success and wellbeing, while maintaining productivity. This topic holds broad relevance to all levels of iGEM teams, as well as their advisors and other stakeholders.https://static.igem.org/peertube/streaming-playlists/hls/8f6ea063-2705-4070-a70a-f01a876afe89/5bb72e9e-97b0-4a8a-919d-4894d7598012-master.m3u8https://video.igem.org/videos/embed/iHgRWAo9xWRfisuqwtYU5z6590192024-12-04T19:59:16.462ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/b1hjLH7WvubnizqbDkZVmShttps://video.igem.org/lazy-static/thumbnails/0994ae36-5a15-431b-8218-05c063e5d7d1.jpgFoodborne-stress induced secretion therapy(FIST)- Engineered Lactobacillus transplantation for T2...We have chosen food-grade Lactobacillus NZ9000 as the chassis cells and designed two protein expression systems: (1)Foodborne-stress induced expression system for FGF21(fibroblast growth factor 21) -LMWP (low-molecular-weight protamine). As the concentration of cholate in the intestine increases after meals, the GroESL promoter initiates transcription and promotes the secretion of fusion proteins by the engineered bacteria. The LMWP facilitates the entry of FGF21 into the bloodstream, and FGF21 improves tissue insulin resistance. (2)Constitutive expression system that displays Akkermansia muciniphila P9 protein on the membrane. P9 protein binds to the ICAM-2 receptor on intestinal epithelial L-cells, releasing GLP-1 (glucagon-like peptide-1), which promotes insulin secretion. We hope that our engineered intestinal Lactobacillus can provide a novel approach for the long-term relief of T2DM by coordinating and leveraging the body's glucose-lowering mechanisms in a non-invasive, long-lasting, and more humane way, thus aiding in the alleviation, control, or even cure of diabetes.https://static.igem.org/peertube/streaming-playlists/hls/51057247-1bfd-4021-82fa-45fdef0ac1e6/56f43fef-b0b7-4637-9adf-c20aa90f7b0b-master.m3u8https://video.igem.org/videos/embed/b1hjLH7WvubnizqbDkZVmS6110302024-12-04T19:54:53.500ZYES2024 Live Stage TalksNOhttps://video.igem.org/w/e1DDC73XdUKd1Udiu4e1K4https://video.igem.org/lazy-static/thumbnails/9bf81a13-e1fa-45e2-a919-93a58b5f6ed0.jpgHNU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/hnu-china)https://static.igem.org/peertube/streaming-playlists/hls/695e011f-e93d-4117-a3ce-812190e0c6b9/081d7c20-ea9d-41f9-a965-7978423105a5-master.m3u8https://video.igem.org/videos/embed/e1DDC73XdUKd1Udiu4e1K418000142024-12-03T18:25:28.181ZYES2024 Judging SessionsNOhttps://video.igem.org/w/88Y2bGBj8Y6kBcnuvBS2b7https://video.igem.org/lazy-static/thumbnails/025a8dda-444a-43b0-8cc8-00a2c6e05444.jpgWentworth: Judging Session (2024)[Wiki](https://2024.igem.wiki/wentworth)https://static.igem.org/peertube/streaming-playlists/hls/39ccb369-0d9d-4dfa-89b9-5fd97edd400e/4375269d-4166-45d1-bd40-278971bd60ff-master.m3u8https://video.igem.org/videos/embed/88Y2bGBj8Y6kBcnuvBS2b71800012024-12-03T18:27:15.345ZYES2024 Judging SessionsNOhttps://video.igem.org/w/7HTHxHKxc34SxAtVx74r8chttps://video.igem.org/lazy-static/thumbnails/c84546c0-c470-4694-bd9d-250cfd95f01b.jpgJU-Krakow: Judging Session (2024)[Wiki](https://2024.igem.wiki/ju-krakow)https://static.igem.org/peertube/streaming-playlists/hls/367032a6-2c06-4369-89ac-ff6139b5941d/c3923835-a8cb-473b-85ac-9d503d837494-master.m3u8https://video.igem.org/videos/embed/7HTHxHKxc34SxAtVx74r8c180002892024-12-03T18:30:35.761ZYES2024 Judging SessionsNOhttps://video.igem.org/w/gPmxxrNfMQjXPEFQ3mEJRyhttps://video.igem.org/lazy-static/thumbnails/0f1b3bda-ca85-4713-91ea-f6ab3f2b17e4.jpgAshesiGhana: Judging Session (2024)[Wiki](https://2024.igem.wiki/ashesighana)https://static.igem.org/peertube/streaming-playlists/hls/8015b29a-d4a3-4251-be48-002799196312/449d93da-0d2c-4e48-b093-cb7a35a91516-master.m3u8https://video.igem.org/videos/embed/gPmxxrNfMQjXPEFQ3mEJRy18000132024-12-04T20:02:37.128ZYES2024 Judging SessionsNOhttps://video.igem.org/w/ovTnUpeZ77wRNGDfLu43VPhttps://video.igem.org/lazy-static/thumbnails/9cc78b0a-1cc4-48d0-9d4a-717dcb63f7fc.jpgXMU-China: Judging Session (2024)[Wiki](https://2024.igem.wiki/xmu-china)https://static.igem.org/peertube/streaming-playlists/hls/b655484e-9430-469c-9340-b666cb57fe31/243f7f01-bf54-44c5-8bce-2fcd49391a0c-master.m3u8https://video.igem.org/videos/embed/ovTnUpeZ77wRNGDfLu43VP18000492024-12-03T18:35:50.791ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6r7ybMH3ocqiAEswocAyumhttps://video.igem.org/lazy-static/thumbnails/9e3ba2c9-e0a2-4739-836f-d98c4f56eb6f.jpgWaterloo: Judging Session (2024)[Wiki](https://2024.igem.wiki/waterloo)https://static.igem.org/peertube/streaming-playlists/hls/2bff53c1-6548-46f7-93aa-e7ca8665ea2c/c23b349c-08b8-4aa6-90ae-c044b534fb68-master.m3u8https://video.igem.org/videos/embed/6r7ybMH3ocqiAEswocAyum1800042024-12-03T18:35:55.599ZYES2024 Judging SessionsNOhttps://video.igem.org/w/6e8PwoxVKM6w6osYMGhzKchttps://video.igem.org/lazy-static/thumbnails/bdbbc3b3-5b36-48dc-94b3-59e3e13aff07.jpgPI Experience: Creating a Synbio CurriculumSynthetic biology is an interdisciplinary field that invites students with interests from fields such as biology, engineering, arts, and social sciences. How are synthetic biology education programs being developed and how is iGEM training integrated into them? This panel brings together iGEM PIs and educators who have built synthetic biology curricula and aligned it with iGEM projects. Learn from them about curriculum development, institutional adaptation, challenges they face to reach intended learning outcomes, and improving student training.https://static.igem.org/peertube/streaming-playlists/hls/2a532e61-5bd0-44e8-9a8a-d7a5ad962c8d/d76886c3-c495-4402-bb7c-084bf1345989-master.m3u8https://video.igem.org/videos/embed/6e8PwoxVKM6w6osYMGhzKc1804092024-12-04T09:13:38.593ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/pQPTxV5BFTmMtra1AgyziWhttps://video.igem.org/lazy-static/thumbnails/95d7c12f-9b15-439d-ac9d-936e80a8e8dc.jpgOpening Show | iGEM 2024Opening Show | iGEM 2024https://static.igem.org/peertube/streaming-playlists/hls/c1136714-b79f-4e4a-a822-ba5cf5571764/f7f215a6-68ad-4925-a7eb-e1a56b3f1f13-master.m3u8https://video.igem.org/videos/embed/pQPTxV5BFTmMtra1AgyziW185702062024-12-04T11:16:37.522ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/aPX8DybRJMSKzyjf6aRwnPhttps://video.igem.org/lazy-static/thumbnails/1ec869a3-3910-4bb7-b137-c410e1166b64.jpgESA Space Synthetic Biology: Space-tolerant Cyanobacteria as a Case StudyBy harnessing biologically-driven technologies under space conditions synthetic biology has the potential to overcome he principal bottlenecks in human exploration of deep space and settlements on Moon and Mars. The European Space Agency has identified four main research areas for space-exploration relevant bioprocesses that include in situ resource utilization, bio-regenerative life support, radioprotection and human health. On Earth humans have been using microorganism-produced resources throughout their history: oxygen, food, fermented products, chemicals, biomaterials, biofuels, mined metals and so on. However, the commonly used microorganisms being isolated from non-extreme environments, might result space susceptible, hence extremophiles represent a game-changer by enhancing microbial space endurance or providing themselves novel chassis. Among extremophiles, desiccation and radiation-tolerant cyanobacteria isolated from Mars-analogs on Earth, are a unique chassis for space applications due to their capability of withstanding space conditions, as shown by experiments performed outside the International Space Station and laboratory simulations. Hence, the development of a synthetic biology toolbox for space-tolerant cyanobacteria is foreseen, and a first insight into their capability to maintain synthetic plasmid integrity will be provided by the future CyanoTechRider experiment on board the ESA Space Rider.https://static.igem.org/peertube/streaming-playlists/hls/4f942e6c-6a0c-458a-aa75-1f6ab9852d01/1e00c27b-76a5-4772-a7aa-36cdee35d41b-master.m3u8https://video.igem.org/videos/embed/aPX8DybRJMSKzyjf6aRwnP13100522024-12-04T17:02:33.919ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/iRzeMboANW18WPzvgbbsdphttps://video.igem.org/lazy-static/thumbnails/cc24fe88-2b66-43af-bac2-997908f73ecd.jpgGuelph: Judging Session (2024)[Wiki](https://2024.igem.wiki/guelph)https://static.igem.org/peertube/streaming-playlists/hls/9097490b-5158-4ac4-959d-42e55318bbc7/2e4f9740-07ab-455d-9f71-0c19a80f6fb3-master.m3u8https://video.igem.org/videos/embed/iRzeMboANW18WPzvgbbsdp16500192024-12-06T16:35:07.051ZYES2024 Judging SessionsNOhttps://video.igem.org/w/wHADeND2nM7tufR1djDJNJhttps://video.igem.org/lazy-static/thumbnails/7cd77ba8-8f76-46f8-8a6c-d6413ac1bbc0.jpgThe Titanium Biobrick Trophy | iGEM 2024The original BioBrick Trophy was created in 2006 by Tom Knight, at MIT. Every year since, the name of the iGEM Grand Prize Winner has been engraved on the trophy, which is then sent to the winning team to showcase and safeguard for the year, until the next winner is announced. The trophy is passed on: winner to winner, year after year. After 18 years, the original aluminum trophy has become fully engraved, marking the end of its journey. In 2024, a new BioBrick Trophy was revealed, honoring the achievements of the first 18 winners and opening a new chapter at iGEM. It was designed and produced across four countries (France, Mexico, China, USA) reflecting iGEM’s international spirit.https://static.igem.org/peertube/streaming-playlists/hls/f8c100d7-167c-4a3c-b06b-73cd5a7dbd66/d5a8ce4e-2a93-41a7-a6f3-2288a34d7d96-master.m3u8https://video.igem.org/videos/embed/wHADeND2nM7tufR1djDJNJ59501622024-12-06T19:19:34.301ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/uqf5SRZYywnu7PMbEUgYeDhttps://video.igem.org/lazy-static/thumbnails/0750cf9f-88c4-4749-b1c3-cacb775373c1.jpgSynthesis Screening: The Future of Writing and Hacking DNASynthetic biology runs on synthetic DNA. Whether ordered from a core facility or a commercial supplier, affordable and accessible synthetic DNA is needed to unlock the benefits of bioengineering. Synthetic sequences can also increase access to pathogens and toxins, raising concerns about accidents or misuse. Advances in AI allow us to design sequences in silico with little similarity to natural genomes, expanding the range of both benefits and risks. How should we safeguard the transition from digital designs to physical sequences? Can synthesis screening keep up?https://static.igem.org/peertube/streaming-playlists/hls/e622699f-33e2-426c-bae8-735ac620224f/d39c933b-22f8-414a-a6ff-f5f71e7c218c-master.m3u8https://video.igem.org/videos/embed/uqf5SRZYywnu7PMbEUgYeD69230202024-12-07T08:56:10.201ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/hVvTxaJxvEGqJpbHv4rG78https://video.igem.org/lazy-static/thumbnails/4bdff579-6b9c-4ac8-9d9e-4558652ed1e8.jpgEcosystems of Anticipatory Governance: the Good, the Bad and the UglyIn the face of rapidly advancing emerging technologies, anticipatory governance promises to get ahead of the accompanying social challenges and build longer-term capacities to shape innovation more effectively and in a values-based manner. This session will unpack how the ecosystem of actors in the SynBio community (such as innovators, governments and non-profits) come together to anticipate technology futures and embed responsibility in tech development. Which fora, tools and dedicated actors have had most success, which have failed, and what lessons can we learn?https://static.igem.org/peertube/streaming-playlists/hls/890b0ecf-d733-4dae-b048-b5cbf5e5bb7b/dcd08a5b-fe4b-4c29-b08b-5a22b9759775-master.m3u8https://video.igem.org/videos/embed/hVvTxaJxvEGqJpbHv4rG786907062024-12-07T09:26:38.464ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/gTJgyPhvcYNM4fqaPfzGaMhttps://video.igem.org/lazy-static/thumbnails/04eb4628-a838-408f-b453-8ba8b49a5db4.jpgTrustworthiness in Research & Development: Past & FutureSynthetic biology can be a huge transformative power in societies, all over the world. On the one hand, synthetic biology may contribute to addressing urgent societal challenges. On the other hand, synthetic biology is not without risks and also may raise various ethical issues. So, what goals do we want to reach with synthetic biology? And what is needed to reach them? What do we want to prevent? And what is needed to this end? Given the pace of the development of synthetic biology - just look at iGEM(!) - and the urgency of various societal challenges, answers must be formulated to this question quickly. However, the development of biotechnology has not been without controversy in the past. If we want to find answers to these grand questions, mutual trust between synthetic biologists and other societal stakeholders, such as members of the public is pivotal. The central question of this session is accordingly: how can we build and maintain trust between synthetic biologists and the public?https://static.igem.org/peertube/streaming-playlists/hls/80b20f9c-8068-4e3f-a22a-b4c47c24d27f/6eebddb2-44cc-414e-b8fc-353740d30433-master.m3u8https://video.igem.org/videos/embed/gTJgyPhvcYNM4fqaPfzGaM7035012024-12-07T09:26:55.658ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/1dUGd6FPJZUMj9r7HBgzC6https://video.igem.org/lazy-static/thumbnails/b534fd59-e90d-4679-bf8f-389eef4bded2.jpgDrewsTalkDrewsTalkhttps://static.igem.org/peertube/streaming-playlists/hls/01cd660b-4ea7-4258-8c6b-0e60897bcdf9/bea32702-3308-43be-ab6e-272a5141efb1-master.m3u8https://video.igem.org/videos/embed/1dUGd6FPJZUMj9r7HBgzC61836002006-12-08T06:35:46.186ZYES2006 JamboreeNOhttps://video.igem.org/w/srPx99pttQJKxas67ZqASmhttps://video.igem.org/lazy-static/thumbnails/0137be2d-b647-4164-9bf1-7d6661550d26.jpgSimonMercer+RFP+AnnouncementSimonMercer+RFP+Announcementhttps://static.igem.org/peertube/streaming-playlists/hls/d6287ebc-c145-4b7e-8fc9-db19b51bc380/d151a594-a7b8-4875-aeaf-195451a4a4f5-master.m3u8https://video.igem.org/videos/embed/srPx99pttQJKxas67ZqASm148002006-12-08T06:33:05.413ZYES2006 JamboreeNOhttps://video.igem.org/w/6m4b8taBRzPkDozaqsbF4ghttps://video.igem.org/lazy-static/thumbnails/4583280b-0d68-4498-b629-769561cc1f87.jpgiGEM+2006+Grand+Prize+First+Runner+UpiGEM+2006+Grand+Prize+First+Runner+Uphttps://static.igem.org/peertube/streaming-playlists/hls/2b4a866f-6ab2-45cd-b0a4-53af6023a029/4a516bde-cc29-4f18-8f7d-a160c530b1fb-master.m3u8https://video.igem.org/videos/embed/6m4b8taBRzPkDozaqsbF4g70002006-12-08T06:52:51.194ZYES2006 JamboreeNOhttps://video.igem.org/w/8seyaqaSgH6rbVfFf9BcYshttps://video.igem.org/lazy-static/thumbnails/3d994ab4-a3da-43e7-8b14-fceee35ca2ff.jpgiGEM+2006+Grand+Prize+Second+Runner+UpiGEM+2006+Grand+Prize+Second+Runner+Uphttps://static.igem.org/peertube/streaming-playlists/hls/3c59a973-0ca2-41b4-988a-9b1c140a23ce/87a098c1-bbeb-4951-8267-14d3b8aefa4c-master.m3u8https://video.igem.org/videos/embed/8seyaqaSgH6rbVfFf9BcYs97002006-12-08T06:49:43.957ZYES2006 JamboreeNOhttps://video.igem.org/w/dwCHbYpuiqGSRgKG5UkWVbhttps://video.igem.org/lazy-static/thumbnails/290526ec-06e5-433d-83d2-c424ca29f2f1.jpgiGEM+2006+Grand+Prize+WinneriGEM+2006+Grand+Prize+Winnerhttps://static.igem.org/peertube/streaming-playlists/hls/657499b7-a9f7-4d5f-9e5b-e7dbe396aedc/14765ad1-f871-4949-b4c5-7f4ee0d905e5-master.m3u8https://video.igem.org/videos/embed/dwCHbYpuiqGSRgKG5UkWVb264042006-12-08T06:55:25.004ZYES2006 JamboreeNOhttps://video.igem.org/w/dsmPrgxbdcPSw3m6YE5dtxhttps://video.igem.org/lazy-static/thumbnails/b82e12d7-f8f2-4a57-832e-e6f6c3865557.jpgiGEM2006_Ambassadors1iGEM2006_Ambassadors1https://static.igem.org/peertube/streaming-playlists/hls/64dbd4d6-9957-4b84-8f81-191b928a272d/52630a55-1c1e-4b0d-b951-2134b4fcdd0b-master.m3u8https://video.igem.org/videos/embed/dsmPrgxbdcPSw3m6YE5dtx1393002006-12-08T06:32:37.593ZYES2006 JamboreeNOhttps://video.igem.org/w/boKmJZKGNtDsDSccBWqtZ6https://video.igem.org/lazy-static/thumbnails/c913a241-0e86-41d5-9919-402f04df820b.jpgiGEM2006_Ambassadors2iGEM2006_Ambassadors2https://static.igem.org/peertube/streaming-playlists/hls/54287838-bb24-452e-924e-4fc6bc9925fb/03cad980-2536-4432-90cb-908806f79799-master.m3u8https://video.igem.org/videos/embed/boKmJZKGNtDsDSccBWqtZ61529002006-12-08T06:29:05.624ZYES2006 JamboreeNOhttps://video.igem.org/w/dY6zAGD2Hn2uKe2v9RdH2Dhttps://video.igem.org/lazy-static/thumbnails/bee3e150-0f02-48d1-af52-f281f18bd262.jpgiGEM2006_Ambassadors3iGEM2006_Ambassadors3https://static.igem.org/peertube/streaming-playlists/hls/6902c0de-6b03-4139-b591-e29efabd14d3/f7e94446-fdc7-4e21-a604-8c7f9299c433-master.m3u8https://video.igem.org/videos/embed/dY6zAGD2Hn2uKe2v9RdH2D1462002006-12-08T06:25:58.476ZYES2006 JamboreeNOhttps://video.igem.org/w/5dg48DDzoFzBrD35UMQQMbhttps://video.igem.org/lazy-static/thumbnails/b2b4cec3-a33b-46e2-95a1-68a4615fffae.jpgiGEM2006_ArizonaiGEM2006_Arizonahttps://static.igem.org/peertube/streaming-playlists/hls/221ac1da-34f0-4988-ab9b-70e519be59cc/49ac64df-b3b8-432d-b51a-cb9fce6aa3ce-master.m3u8https://video.igem.org/videos/embed/5dg48DDzoFzBrD35UMQQMb1202002006-12-08T04:52:52.385ZYES2006 JamboreeNOhttps://video.igem.org/w/qNTdzntfgnFPdj2x1yidiRhttps://video.igem.org/lazy-static/thumbnails/57341380-2d19-47de-8f5e-d44075c4fffb.jpgiGEM2006_BangaloreiGEM2006_Bangalorehttps://static.igem.org/peertube/streaming-playlists/hls/c8e71ad0-854e-40c8-8d0c-0cdc27e21aa3/10e8ea26-55a6-431c-a133-9065d2ede7a6-master.m3u8https://video.igem.org/videos/embed/qNTdzntfgnFPdj2x1yidiR1079002006-12-08T04:53:12.418ZYES2006 JamboreeNOhttps://video.igem.org/w/5iUCf15igN2G7qneE5XDXZhttps://video.igem.org/lazy-static/thumbnails/047a2b8e-f701-4c5f-9941-53c19840e6e9.jpgiGEM2006_BerkeleyiGEM2006_Berkeleyhttps://static.igem.org/peertube/streaming-playlists/hls/22e4a144-3754-4b94-a1fd-5c9298e4853b/512a4758-b7a5-4579-88e5-159f5223d9cd-master.m3u8https://video.igem.org/videos/embed/5iUCf15igN2G7qneE5XDXZ1292012006-12-08T04:53:42.647ZYES2006 JamboreeNOhttps://video.igem.org/w/krHh2pd8eHbi5UmgMmikzWhttps://video.igem.org/lazy-static/thumbnails/20fad8ff-e23a-4b33-b699-6708e1334570.jpgiGEM2006_BrowniGEM2006_Brownhttps://static.igem.org/peertube/streaming-playlists/hls/9d74aa8c-16da-45b2-8557-c21dea94a024/846fb135-fd2e-4e33-a028-ad5c66eb880b-master.m3u8https://video.igem.org/videos/embed/krHh2pd8eHbi5UmgMmikzW1334002006-12-08T04:54:31.482ZYES2006 JamboreeNOhttps://video.igem.org/w/2cahAgFDBnugucZ4DN77Gjhttps://video.igem.org/lazy-static/thumbnails/5b434095-5f1a-450b-991d-4001c1fbce84.jpgiGEM2006_CalgaryiGEM2006_Calgaryhttps://static.igem.org/peertube/streaming-playlists/hls/09a80af8-f559-4162-9173-d7e0a2a2a62a/27170a61-e3f8-46c4-8737-69109159498e-master.m3u8https://video.igem.org/videos/embed/2cahAgFDBnugucZ4DN77Gj1738002006-12-08T04:56:09.444ZYES2006 JamboreeNOhttps://video.igem.org/w/6SeNWsrsMyUmV3gnnpMXELhttps://video.igem.org/lazy-static/thumbnails/fdc4c5a4-ea9f-4979-8d81-d12cd784a3f4.jpgiGEM2006_CambridgeiGEM2006_Cambridgehttps://static.igem.org/peertube/streaming-playlists/hls/2f81645f-3a4d-4e8a-b325-3550209c7bdc/7c8672f4-01c9-4d96-ba9f-044d283e7e8b-master.m3u8https://video.igem.org/videos/embed/6SeNWsrsMyUmV3gnnpMXEL1509002006-12-08T04:59:56.671ZYES2006 JamboreeNOhttps://video.igem.org/w/gKsAZ7hfwZNoKtdK5EHtyMhttps://video.igem.org/lazy-static/thumbnails/156d444f-3764-4d59-ad45-a921c39a8671.jpgiGEM2006_ChibaiGEM2006_Chibahttps://static.igem.org/peertube/streaming-playlists/hls/7f8a74f1-1b47-47af-9b5d-98c99179fd41/cdb0c45d-9bc1-4811-9ce0-4e1cc2925f3e-master.m3u8https://video.igem.org/videos/embed/gKsAZ7hfwZNoKtdK5EHtyM1336002006-12-08T05:03:15.583ZYES2006 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- Turning Academic Challenges Into OpportunitiesOn December 7th, 2024, we hosted our fifth Speaker Event with Licyel Lenny Paulas Condori, Co-Founder and National Coordinator For Microscopía Para Todos! 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Attendees will include synthetic biology researchers, industry reps, startup founders, investors, journalists, experts in governance and policy, and the general public. Over 400 teams from 50+ countries will present synthetic biology projects in the iGEM Competition. These projects will target humanity’s most pressing problems and will be categorized into 15 Villages. These Villages will include topics such as Oncology, the Climate Crisis, the Environment and Biomanufacturing, just to name a few. Alongside the iGEM Competition, the 2025 Grand Jamboree will also host the Bioinnovation Fair, the Startups Showcase, the Responsibility Conference, the Bioinnovation Summit and the SB.X Conference. The iGEM 2025 Grand Jamboree, the World Expo of Synthetic Biology, will run from October 28 - 31, 2025, at the Paris Convention Centre. Come, witness the future, and meet tomorrow’s synthetic biology innovators! For more information, and to purchase tickets, please visit us at https://jamboree.igem.org iGEM would like to thank the following people for sharing their thoughts with the iGEM Community in this video: Drew Endy, Megan Palmer, Ron Weiss, Adam Clore, John Cumbers, Traci Haddock, Janet Standeven, Nadine Bongaerts-Duportet, Orr Yarkoni, Alonso Flores, Max Brackmann, Kathryn Millet, Jennifer Mihowich, Ahir Pushpanath, Elodie Pronier, Alya Masoud and Xavier Duportet. https://static.igem.org/peertube/streaming-playlists/hls/b239ecad-a29e-4636-a733-6aa2ad193cee/1df9dc4d-8d30-4376-8d18-e52f0864e206-master.m3u8https://video.igem.org/videos/embed/o1to5WzPjZuZudycgQp8ff234025632025-03-28T17:43:45.442ZYES2024 Grand JamboreeNOhttps://video.igem.org/w/wjjtZxGVCotchaVsLFCpv2https://video.igem.org/lazy-static/thumbnails/1e3693a5-5c44-48c2-878d-5c5465db1749.jpg[Podcast] SciComm Made Easy - S2E1: A New Season of SciComm StorytellingWe’re back with Season Two of SciComm Made Easy! This season, we’re shaking things up with brand-new segments that dive deep into the world of science communication. In this episode, we introduce our exciting new themes: The Voices of iGEM, where we explore real-life examples of SciComm within the iGEM community; Heroes of Academia, uncovering the mysteries of SciComm in academic research; and Mind the Gap, where we tackle how science is communicated in the biotech and pharma industries. Join us as we set the stage for an exciting season ahead, packed with insights, discussions, and plenty of SciComm inspiration. Don’t miss it! Learn more about the project: https://community.igem.org/projects/scicomm-made-easyhttps://static.igem.org/peertube/streaming-playlists/hls/f580f01f-8b5e-4fb2-b0ca-4fdc9bb1d35f/9920e34a-6863-4c7f-9f8e-490afc569fcc-master.m3u8https://video.igem.org/videos/embed/wjjtZxGVCotchaVsLFCpv221460102025-04-22T07:55:14.023ZYESiGEM CommunityNOhttps://video.igem.org/w/k4Jm6ed1bQN4Zjr6xJSneahttps://video.igem.org/lazy-static/thumbnails/d20075ac-a61c-4db3-af87-1ca100f83c85.jpg[Podcast] SciComm Made Easy - S2E2: Scaling Science – Communicating Value in Health AccessWhat does it really take to bring breakthrough healthcare innovations to patients? In this episode, we dive into the world of market access — where science, strategy, and storytelling come together to shape the future of medicine. 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Engineering metabolic pathways using synthetic biology approachesw5.L6 - Engineering metabolic pathways using synthetic biology approacheshttps://static.igem.org/peertube/streaming-playlists/hls/5938d802-9d6e-4131-b0ec-385657880ef4/f76ac1d3-3622-4d04-87e6-0f6e6e10bcfe-master.m3u8https://video.igem.org/videos/embed/c21W6pjtoWDxPF3qgyzecs2659042025-06-10T15:36:34.366ZYESiGEM CommunityNOhttps://video.igem.org/w/i3A5Tzyk7jeAFjNHa7GkN2https://video.igem.org/lazy-static/thumbnails/3ab7c6cd-a98f-42b7-ab7f-baa8a254e2cf.jpgw5.L7 - Microfluidics in synthetic biologyw5.L7 - Microfluidics in synthetic biologyhttps://static.igem.org/peertube/streaming-playlists/hls/8a07d996-a360-4b5b-8fe5-3bc868b12699/82847afe-7b98-4400-b56c-9afc4b501d20-master.m3u8https://video.igem.org/videos/embed/i3A5Tzyk7jeAFjNHa7GkN21925022025-06-10T15:29:45.537ZYESiGEM CommunityNOhttps://video.igem.org/w/a8LvT9JLYGDwAt4xix8bZKhttps://video.igem.org/lazy-static/thumbnails/46bec402-4220-4da4-a6dc-728687665123.jpgw5.L8 - Extraterrestrial pathogens - Are we readyw5.L8 - Extraterrestrial pathogens - Are we readyhttps://static.igem.org/peertube/streaming-playlists/hls/49f7e346-dab1-4f92-8980-fb4982b23c65/f0388b7c-55f4-4547-8a7d-ae03b2ad2dfa-master.m3u8https://video.igem.org/videos/embed/a8LvT9JLYGDwAt4xix8bZK1301012025-06-10T15:38:40.386ZYESiGEM CommunityNOhttps://video.igem.org/w/vosJwWjTE6zTb5oxovgDAhhttps://video.igem.org/lazy-static/thumbnails/8aa096a7-d840-453a-86f4-2c131fd343c6.jpgw5.L9 - Engineering Fluorescent Proteins 101w5.L9 - Engineering Fluorescent Proteins 101https://static.igem.org/peertube/streaming-playlists/hls/edfbdbec-d1bb-4422-8fe7-79a0928e01a0/73c896e6-0f6e-4ba8-8afd-e0b266334062-master.m3u8https://video.igem.org/videos/embed/vosJwWjTE6zTb5oxovgDAh3289022025-06-10T16:26:51.630ZYESiGEM CommunityNOhttps://video.igem.org/w/dSjmsrapFAd6DdPqs5PLgchttps://video.igem.org/lazy-static/thumbnails/7e76182b-59a2-41e2-a43b-23a5d5ffc99d.jpg[Podcast] SciComm Made Easy - S2E3: The iGEM Blueprint for Global Science CommunicationHow does science communication bring a global network of young synthetic biologists together? In this new episode of The Voices of iGEM, we dive into how SciComm drives both the iGEM Competition and the iGEM Community’s mission to make science more accessible, inclusive, and impactful. Join hosts Sabrina Yeo and Ankita De as they chat with Hassnain Qasim Bokhari, Communication Lead at iGEM Community, about the role of storytelling, collaboration, and outreach in shaping the future of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/683429a4-5b2e-44e0-afee-9ed4cf0f3ef9/decaa037-4219-4562-9454-357ad771c637-master.m3u8https://video.igem.org/videos/embed/dSjmsrapFAd6DdPqs5PLgc26330132025-05-31T02:50:20.437ZYESiGEM CommunityNOhttps://video.igem.org/w/uewPVERXWHJNk7ZXU41yqQhttps://video.igem.org/lazy-static/thumbnails/1e39bcff-c053-4fe0-99c0-d694d8e4108d.jpgTackling Challenges of Space Exploration with SynBioTackling Challenges of Space Exploration with SynBiohttps://static.igem.org/peertube/streaming-playlists/hls/e4a38c82-d75a-48d7-b0a5-d935e5f33010/57359af5-bcd9-41f4-9523-d2d62f39442b-master.m3u8https://video.igem.org/videos/embed/uewPVERXWHJNk7ZXU41yqQ43140142025-06-02T09:28:10.395ZYESiGEM WebinarsNOhttps://video.igem.org/w/qeDkSmAHGxLQZKexhgh92qhttps://video.igem.org/lazy-static/thumbnails/e2229d1c-1eb3-4ea8-9e84-6a0a572e44ae.jpgIITChicago: School Outreach Recap Compilation - S25 (2025)Compilation video recounting IIT iGEM IPRO class outreach towards local schools of Spring 2025.https://static.igem.org/peertube/streaming-playlists/hls/c4430290-789a-4b30-81fa-d016fe97d922/22cec012-698e-4d4e-a493-1df6295fa5b6-master.m3u8https://video.igem.org/videos/embed/qeDkSmAHGxLQZKexhgh92q340152025-06-18T08:48:11.696ZYES2025 TeamsNOhttps://video.igem.org/w/1GrxcWG5w5HkBDbLLE2RDwhttps://video.igem.org/lazy-static/thumbnails/d07c3b48-5993-462b-8107-b86602a328ef.jpgBioVisionaries: Surviving the “Valley of Death” – Strategies for Biotech StartupsBetween proof-of-concept product and commercial viability lies the most precarious phase for biotech startups: The “Valley of Death.” In this session, hear directly from founders and investors who’ve been there— learn what went wrong, what worked and what it really takes to survive! You’ll gain insights into: Common pitfalls and how to proactively avoid them. Financing models to extend your startup runway. Building trust and demonstrating value to stakeholders. Exit strategies and when to pivot vs. when to persevere.https://static.igem.org/peertube/streaming-playlists/hls/05a57d3a-6081-48ae-9f96-b2b509d0316c/2968f25d-2e76-414f-9aa8-bcda58b435d3-master.m3u8https://video.igem.org/videos/embed/1GrxcWG5w5HkBDbLLE2RDw36670572025-06-23T10:35:04.470ZInvestmentStartupIndustryInnovationBiotechYESiGEM FoundationNOhttps://video.igem.org/w/tnBc1GBk4DJ2UEsdb4HDM9https://video.igem.org/lazy-static/thumbnails/78d3b6eb-646c-437f-afa7-8ea3142b527a.jpg[Podcast] SciComm Made Easy - S2E4: Breaking Barriers in Academic SciComm - Heroes of AcademiaHow can science communication make academic research more accessible, honest, and impactful? In this new episode of Heroes of Academia, we spotlight how clear communication is transforming the way science reaches—and resonates with—the public. Join host Félicités as she speaks with Manisit Das, co-founder of OncoBites, about the unique challenges of academic SciComm, the importance of transparency in research, and how platforms like OncoBites are helping bridge the gap between experts and everyday readers. Whether you're in the lab or just curious about the latest discoveries, this episode dives into how storytelling and accessibility are reshaping the future of science outreach from within academia — one bite-sized breakthrough at a time.https://static.igem.org/peertube/streaming-playlists/hls/ddab0cac-eabc-458e-888d-6f15106e8e46/44e9ffc0-a43d-4b69-84c2-fc5c36f06ddc-master.m3u8https://video.igem.org/videos/embed/tnBc1GBk4DJ2UEsdb4HDM916650132025-07-01T08:53:08.099ZYESiGEM CommunityNOhttps://video.igem.org/w/4htnpnEK1o9YmXWjDGfYDMhttps://video.igem.org/lazy-static/thumbnails/ac327cb1-efdc-4580-8b2d-70916c4f7ab9.jpgHuman Practices: What’s this all about?Human Practices is at the heart of responsible synthetic biology. But what does it really mean? In iGEM, Human Practices explores how your project affects the world and how the world shapes your project. It’s about thoughtful reflection, ethical responsibility and ongoing engagement with communities, stakeholders and the environment. Join us on June 27th as Dr. Matsuri Rojano-Nisimura dives into this essential concept and helps us discover how to integrate reflection, responsibility and responsiveness into every stage of your projects.https://static.igem.org/peertube/streaming-playlists/hls/1a982edc-c2e7-4b43-998b-66225f8667bf/eeac2f1c-906a-4f40-a024-c051b8345b3c-master.m3u8https://video.igem.org/videos/embed/4htnpnEK1o9YmXWjDGfYDM18890262025-07-02T08:34:20.264ZResponsible InnovationHuman PracticesYESiGEM FoundationNOhttps://video.igem.org/w/xsukL8uoav4F8ecj2yQmQghttps://video.igem.org/lazy-static/thumbnails/635285a1-fa70-4b13-8507-b1e02d29a93d.jpgTec-Chihuahua: Ca-LTP1, PvPGIP2, PDF1.2: Antifungal peptides action (2025)Video illustrating, in a general way, the peptides action of Ca-LTP1, PvPGIP2 and PDF1.2 altogether. Animation made by: Valeria Sánchez, member of team Tec-Chihuahua 2025https://static.igem.org/peertube/streaming-playlists/hls/febe1a20-8da5-4594-b358-69e231d5bbdf/d90152cf-0841-4592-bd60-9b8277d202e8-master.m3u8https://video.igem.org/videos/embed/xsukL8uoav4F8ecj2yQmQg2302862025-07-09T07:04:38.653ZYES2025 TeamsNOhttps://video.igem.org/w/x78X5rnhCoEhGE8pmXqmp4https://video.igem.org/lazy-static/thumbnails/8988edc7-17b6-4d72-9018-e0e1d3ed7969.jpgMammothEdu-South: Ocean's Alchemy (2025) [English]We are the MammothEdu-South 2025 iGEM team from Shenzhen. We focus on using genetic engineering to modify a deep-sea "super bacteria" - deep-sea halophilic bacteria. This type of bacteria is naturally salt and heat resistant. We optimize it to enable it to produce PHA more efficiently. PHA is a completely degradable and environmentally friendly bioplastic. "Our oceans are precious, beautiful and home to so much life. We must do everything we can to reduce our impact." Thanks to SUNO, generate this video for us. https://static.igem.org/peertube/streaming-playlists/hls/fbe6a902-5147-4c3d-895e-33b142287df9/328e2ff3-80b3-4d03-85ed-f6d225f5caa3-master.m3u8https://video.igem.org/videos/embed/x78X5rnhCoEhGE8pmXqmp4179562025-07-09T07:05:31.380ZYES2025 TeamsNOhttps://video.igem.org/w/oGtNWek1oWPsM4nTNF5Tu8https://video.igem.org/lazy-static/thumbnails/e729ae7b-6c50-47b5-a771-540b850a2671.jpgHighSchool: Testing (2025) - Project Promotion [English]**Title:** Testing **Description:** testing fixed fixed2 [Official Page](https://teams.igem.org/5053)https://static.igem.org/peertube/streaming-playlists/hls/b7cff07a-183f-4d69-aadb-6393ba761d9b/1ede25b0-9333-40e2-b818-f85d43619a8c-master.m3u8https://video.igem.org/videos/embed/oGtNWek1oWPsM4nTNF5Tu83002025-07-11T07:24:36.990ZYEStesting_channelNOhttps://video.igem.org/w/eHVGaxpz6obq2wqYX4Fnt9https://video.igem.org/lazy-static/thumbnails/bc9de5ff-bd27-4c8f-9072-febd75398cca.jpgHighSchool: Testing (2025) - Project Promotion [Akan]**Title:** Testing **Description:** testing testing 2 [Official Page](https://teams.igem.org/5053)https://static.igem.org/peertube/streaming-playlists/hls/6f2162e6-17b5-4d85-a3d9-b0cf87caa4c2/d25aa684-a299-494c-b019-65cce4bcd45a-master.m3u8https://video.igem.org/videos/embed/eHVGaxpz6obq2wqYX4Fnt93002025-07-11T07:35:42.556ZYEStesting_channelNOhttps://video.igem.org/w/whjSp1BHkbkHeNnN3JXmvBhttps://video.igem.org/lazy-static/thumbnails/d85d17f3-d0b4-42ea-a261-dcfba92cfe6d.jpgMammothEdu-South: interview with Dr. ZhenQian about PHA material (2025)MammothEdu-South: interview with Dr. ZhenQian about PHA material (2025)https://static.igem.org/peertube/streaming-playlists/hls/f539b041-6a15-4c52-a0af-b9a5525813fd/adae0f29-e116-4663-9a84-1507f0d9f471-master.m3u8https://video.igem.org/videos/embed/whjSp1BHkbkHeNnN3JXmvB10270102025-07-11T07:31:47.875ZYES2025 TeamsNOhttps://video.igem.org/w/pBPiZMpkjW9q4pHaFWmiFjhttps://video.igem.org/lazy-static/thumbnails/b6b326ee-38d8-46ad-8b85-ca75c66a4f02.jpgToulouse-INSA-UT: travel_back_2 (2025) [English]PFAS description and our mission for this competition for the wiki home pagehttps://static.igem.org/peertube/streaming-playlists/hls/bf42608b-527c-4e47-ad08-c3705fe52bec/8a830c35-0ad8-4e82-9278-09fa88c2b78d-master.m3u8https://video.igem.org/videos/embed/pBPiZMpkjW9q4pHaFWmiFj1402562025-07-15T13:17:35.382ZYES2025 TeamsNOhttps://video.igem.org/w/qjC5q1yDCRft33HG1F9zcwhttps://video.igem.org/lazy-static/thumbnails/4854d3d2-dcd6-45a2-b8c2-56fefe47b05e.jpgInside the AI x Biotech revolution with Stef van Grieken, CEO of CradleAI is rapidly transforming the life sciences—from protein folding and function prediction, to personalizing therapies and accelerating drug discovery. This session offers a deep dive into how AI is being integrated into real-world R&D and what we can expect for the (near) future. You’ll learn about: - State-of-the-art AI approaches for protein engineering and drug development. - How to build high-quality datasets for biotech applications. - Challenges in AI infrastructure, regulation and AI talent. - How AI will shape the future of the biotech workforce.https://static.igem.org/peertube/streaming-playlists/hls/c4f4f2c9-8e7d-4d21-adc1-21d924adad70/7877cfb0-5397-48c4-8c55-304dc24f15dc-master.m3u8https://video.igem.org/videos/embed/qjC5q1yDCRft33HG1F9zcw35700592025-07-16T14:37:15.636ZR&DDeeptechTechnologyAIYESiGEM FoundationNOhttps://video.igem.org/w/kZFXYxNaSeoNJMsHVYaigDhttps://video.igem.org/lazy-static/thumbnails/48bf6315-99d8-4182-8d9d-d0c31115ccde.jpgTest-2: sdfgdsfgdfgdgsdgdfg (2025) - = Project Promotion [Aymara]**Title:** sdfgdsfgdfgdgsdgdfg **Description:** sdfgdfsgdgsdfggdsfg [Official Page](https://teams.igem.org/5388)https://static.igem.org/peertube/streaming-playlists/hls/a1eba8a6-6427-4514-aaf1-e6093d3f9e37/13e095a1-b28d-4d9c-8ce3-09ee10303d2d-master.m3u8https://video.igem.org/videos/embed/kZFXYxNaSeoNJMsHVYaigD3002025-07-21T10:43:06.741ZYESMain orestisath channelNOhttps://video.igem.org/w/5kcaAzK9gBoiZupd1piRBHhttps://video.igem.org/lazy-static/thumbnails/68bfbb69-f62c-49e4-9100-973287d1cbff.jpgBest Practices in Applying the Engineering Cycle of "Design, Build, Test and Learn" to Engineerin...Guest Speaker: Dr. Alejandro Vignoni, Universitat Politècnica de Valènciahttps://static.igem.org/peertube/streaming-playlists/hls/23129135-9f5c-4732-9201-7ead9f73fb93/1bacfb5c-7e44-46c1-8a2e-d8db65a99b13-master.m3u8https://video.igem.org/videos/embed/5kcaAzK9gBoiZupd1piRBH15350352025-07-24T16:36:19.712ZEngineeringDBTLYESiGEM FoundationNOhttps://video.igem.org/w/jnQgPZdDvxdycSxmJzpsnGhttps://video.igem.org/lazy-static/thumbnails/77ba5c43-70eb-423b-8af5-7168a80bfc90.jpgXJTLU-Science-China: Engineering Bacteria to Target Triple-Negative Breast Cancer (2025) - Projec...**Title:** Engineering Bacteria to Target Triple-Negative Breast Cancer **Description:** Cancer arises from genetic errors leading to uncontrolled cell growth. Current therapies like chemo and radiation damage healthy tissue. We exploit a surprising discovery: commensal bacteria naturally reside within tumors and influence cancer progression. Targeting the aggressive Triple-Negative Breast Cancer (TNBC), which lacks key receptors for conventional therapies, our iGEM team engineers Staphylococcus epidermidis and xylosus. By equipping them with the invasion-boosting Fnbp protein from S. aureus, we transform these bacteria into precise vectors for delivering future cancer treatments directly to TNBC cells. [Wiki](https://2025.igem.wiki/xjtlu-science-china) | [Official Page](https://teams.igem.org/5636)https://static.igem.org/peertube/streaming-playlists/hls/94d0dd40-f57f-406e-9830-e7ba887ff1fa/08e1a3eb-1ee9-4efe-9a38-c884e9eb868b-master.m3u8https://video.igem.org/videos/embed/jnQgPZdDvxdycSxmJzpsnG1210442025-07-31T03:21:16.185ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qiPiHxgmC31Cpghtfx3Wxchttps://video.igem.org/lazy-static/thumbnails/813f028d-8f7b-47ba-b790-c7b4f2248878.jpgSR-China: "2-FLuxe" : Probiotic HMOs, Digestible Casein & Lactose-Free (2025) - Project Promotion...**Title:** "2-FLuxe" : Probiotic HMOs, Digestible Casein & Lactose-Free **Description:** To address critical limitations in current infant formula—specifically the absence of immunomodulatory human milk oligosaccharides (HMOs), poor digestibility of casein micelles, and prevalent lactose intolerance—our team, Probabyotics, developed "2-FLuxe" using Escherichia coli Nissle 1917（EcN） as a probiotic chassis for integrated bioengineering. We constructed three synergistic systems: (1) a de novo 2’-fucosyllactose (2’-FL) synthesis pathway (via manB-manC-gmd-fcl-futC overexpression) to produce breastmilk-mimetic HMOs at >80% reduced cost; (2) recombinant trypsinogen expression for precise casein hydrolysis, alleviating gastrointestinal burden; and (3) high-yield β-galactosidase (lacZ) fermentation to eliminate lactose. Manufacturing involves EcN-based fermentation with low-cost substrates (glycerol/lactose), enzymatic purification, and incorporation of 2’-FL with trypsin/β-galactosidase-treated milk. The resulting formulation eliminates key drawbacks of conventional formulas by providing 2’-FL-driven pathogen inhibition and microbiota support, enhanced protein digestibility, and lactose-free tolerance—enabling accessible, breastmilk-equivalent nutrition for infants with digestive vulnerabilities or limited breastfeeding access. [Wiki](https://2025.igem.wiki/sr-china) | [Official Page](https://teams.igem.org/5986)https://static.igem.org/peertube/streaming-playlists/hls/c4d81ffc-ba9d-478b-9cf1-8e33808cea69/09e3fc15-bef7-4e5f-8643-4266db5c8f03-master.m3u8https://video.igem.org/videos/embed/qiPiHxgmC31Cpghtfx3Wxc1200242025-08-01T03:57:53.944ZYES2025 Project PromotionsNOhttps://video.igem.org/w/4cKxzZCGT7g6jWytAioBFwhttps://video.igem.org/lazy-static/thumbnails/9fe58a6f-05f4-4995-9011-a9c7c4a3360d.jpgToulouse-INSA-UT: PFAway, the solution to PFAS pollution (2025) - Project Promotion [English]**Title:** PFAway, the solution to PFAS pollution **Description:** PFAS pollution is a pressing global issue. These persistent chemicals, found in thousands of everyday products, accumulate in the environment and are harmful to human health. Our team has developed PFAway, a bioremediation solution that uses engineered enzymes and bacteria to break down PFAS. [Wiki](https://2025.igem.wiki/toulouse-insa-ut) | [Official Page](https://teams.igem.org/5755)https://static.igem.org/peertube/streaming-playlists/hls/19ef6ec9-145d-4a57-a6d5-38d8bda7a060/bf5c6e42-ebe6-419d-8f15-875ff1b2379d-master.m3u8https://video.igem.org/videos/embed/4cKxzZCGT7g6jWytAioBFw12356962025-08-01T11:26:47.153ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vzuFHW41MtiXv6CPa7DhTBhttps://video.igem.org/lazy-static/thumbnails/b41f22b1-cbf6-4a58-884d-d8983e6ebe5d.jpgPatras: background aechmi (2025)Will be embedded in https://2025.igem.wiki/patras/https://static.igem.org/peertube/streaming-playlists/hls/ef863e44-9a00-46c0-a085-da1617992179/32216b55-bd93-4247-840b-2ce6459b5ec0-master.m3u8https://video.igem.org/videos/embed/vzuFHW41MtiXv6CPa7DhTB1501082025-08-01T12:59:33.719ZYES2025 TeamsNOhttps://video.igem.org/w/1sSVCUVDAACTmRjWAATHhRhttps://video.igem.org/lazy-static/thumbnails/636e847d-61b7-4bbb-8af8-90903418d840.jpgPatras: logo background (2025)Will be embedded in https://2025.igem.wiki/patras/https://static.igem.org/peertube/streaming-playlists/hls/03c0b8b5-ab72-481c-9221-54951f82e36d/edd9d2bc-cc94-41c4-a2a2-0f8579c35d67-master.m3u8https://video.igem.org/videos/embed/1sSVCUVDAACTmRjWAATHhR601072025-08-01T13:00:08.783ZYES2025 TeamsNOhttps://video.igem.org/w/gyDNCnocgyrWJeNTE3Ab3Mhttps://video.igem.org/lazy-static/thumbnails/236890c8-a2d8-4abe-8735-a02419217f2b.jpgThessaly: Clotho: Weaving a Cure for PDAC (2025) - Project Promotion [English]**Title:** Clotho: Weaving a Cure for PDAC **Description:** Pancreatic Ductal Adenocarcinoma (PDAC) accounts for almost half a million deaths globally. The global incidence and mortality rates are similar, meaning almost every individual diagnosed with PDAC has a slim chance of survival. These statistics result from ineffective treatments, highlighting the urgent need for further research. That's why we invented CLOTHO, a modular gene therapy approach for curing PDAC. We used an adeno-associated virus to deliver a therapeutic transgene, via an injection, that activates only in cancerous cells. Once inside, the construct produces two key components: circular RNAs and an enzyme. The circular RNAs sponge up tumor-promoting miRNAs, making cancer cells more responsive to chemotherapy. The enzyme then activates a harmless prodrug 5-fluorocytosine into its toxic agent 5-fluorouracil, causing targeted destruction. We, also, developed a software platform that generates custom circular RNA sequences tailored to each patient’s genetic profile. With our approach we aim to minimize off-target effects and ensure precision, while introducing an innovative way to tackle drug resistance in cancer and other diseases. [Wiki](https://2025.igem.wiki/thessaly) | [Official Page](https://teams.igem.org/5618)https://static.igem.org/peertube/streaming-playlists/hls/7e082d93-5f47-4cbe-92c9-abdfbe2e1ff9/b2671a12-609f-4c4b-9156-3da75710fb76-master.m3u8https://video.igem.org/videos/embed/gyDNCnocgyrWJeNTE3Ab3M10701522025-08-02T16:39:40.716ZYES2025 Project PromotionsNOhttps://video.igem.org/w/quAQzRUXhFjC4dz63v3LZnhttps://video.igem.org/lazy-static/thumbnails/fc83029a-f0b4-480a-9cfe-ad44196675cd.jpgBASIS-China: SnaPFAS (2025) - Project Promotion [English]**Title:** SnaPFAS **Description:** This is the video that introduces the basics of our project named SnaPFAS. The video includes the brief definition about what are PFAS, their harms, currently known solutions and their flaws, and lastly our solution via degrading PFAS (specifically PFOA). [Wiki](https://2025.igem.wiki/basis-china) | [Official Page](https://teams.igem.org/5610)https://static.igem.org/peertube/streaming-playlists/hls/c6599f74-1c77-4aa4-a950-37d15baa0d4f/c7c02f6a-8ce1-4b75-b5a3-5040db21dcc6-master.m3u8https://video.igem.org/videos/embed/quAQzRUXhFjC4dz63v3LZn1210312025-08-04T00:12:09.625ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6JR1Aq9tQg11TaFLy4g8MAhttps://video.igem.org/lazy-static/thumbnails/4d188b2c-188d-4c3e-af54-2594f170894a.jpgNNU-CHINA: 《C to T, Healthy Baby? — the Convenient MTHFR Gene Test Illuminates y... (2025) - Proj...**Title:** 《C to T, Healthy Baby? — the Convenient MTHFR Gene Test Illuminates your Baby’s Future 》 **Description:** Adhering to the mission of iGEM to solve practical problems through synthetic biology, our project focuses on MTHFR, a key enzyme in folate metabolism, and its encoding gene. If folate cannot be metabolized by this enzyme into an absorbable active form for the human body, it will cause serious problems: placental vascular lesions, neonatal neural tube defects leading to spina bifida, anencephaly, etc. By means of single-base detection technology, we identify whether the 677 C in the MTHFR gene is mutated into T and generate corresponding fluorescent signals, thus developing an accurate detection process to realize the evaluation of individual folate absorption capacity — laying a scientific foundation for personalized supplementation schemes and practicing the concept of iGEM in promoting sustainable human health through biotechnology. [Wiki](https://2025.igem.wiki/nnu-china) | [Official Page](https://teams.igem.org/5902)https://static.igem.org/peertube/streaming-playlists/hls/2e7922a0-e932-499b-b1dc-6d74e3c2fd58/27fb7264-ff94-4cc2-8313-a3da7f74b611-master.m3u8https://video.igem.org/videos/embed/6JR1Aq9tQg11TaFLy4g8MA1185312025-08-04T07:02:25.880ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cNjHfActkhxfqqB2NCrPdthttps://video.igem.org/lazy-static/thumbnails/aed77232-8363-41b9-8b3b-8140ca5c0a21.jpgSKLBE-China: GoutBuster: Engineered Probiotic YES302 for Hyperuricemia (2025) - Project Promotion...**Title:** GoutBuster: Engineered Probiotic YES302 for Hyperuricemia **Description:** Nowadays, hyperuricemia and gout are plaguing a large number of people, and high purine intake is a key inducement for hyperuricemia. To address this issue, our GoutBuster team has technologically modified Escherichia coli Nissle 1917, naming it YES302, to enable it to transport purines and uric acid, which is expected to provide a new solution for alleviating hyperuricemia and gout symptoms. [Wiki](https://2025.igem.wiki/sklbe-china) | [Official Page](https://teams.igem.org/5973)https://static.igem.org/peertube/streaming-playlists/hls/5f8c4517-54b5-4e52-a4ad-6a19b0dbc117/2cd3a814-87ff-4c52-9a7e-38aa7bbd3562-master.m3u8https://video.igem.org/videos/embed/cNjHfActkhxfqqB2NCrPdt1180252025-08-04T10:41:09.360ZYES2025 Project PromotionsNOhttps://video.igem.org/w/33AYgT3FHpLSm8aWtzka3ghttps://video.igem.org/lazy-static/thumbnails/151ecf2a-e6e0-4a9a-8b6f-be31beb8bbc8.jpgHangzhou-PET: Odor-Control Cat Litter Powered by Antisense RNA (2025) - Project Promotion [English]**Title:** Odor-Control Cat Litter Powered by Antisense RNA **Description:** Cat litter odor, primarily caused by ammonia from bacterial urea degradation, is a persistent problem for pet owners. Most existing solutions mask the smell rather than eliminating its source, creating a need for a more effective and sustainable approach. We developed a functional cat litter that actively reduces odor by releasing antisense RNA (asRNA) to inhibit urease-producing bacteria in urine. While urea itself is odorless, bacteria like Sporosarcina pasteurii and Micrococcus luteus break it down into ammonia, which causes strong smells. Our cat litter contains chitosan-modified montmorillonite (CS-MMT), a positively charged material that adsorbs and stabilizes the asRNA. By targeting bacterial urease production, this cat litter not only controls odor at the source, but also helps suppress unwanted microbial growth—offering a cleaner, smarter solution for pet hygiene. [Wiki](https://2025.igem.wiki/hangzhou-pet) | [Official Page](https://teams.igem.org/6027)https://static.igem.org/peertube/streaming-playlists/hls/108f50e7-a7b8-492f-ba4e-dfefb803b5af/d2492613-8e8f-4e36-a72d-e8f42d64c3aa-master.m3u8https://video.igem.org/videos/embed/33AYgT3FHpLSm8aWtzka3g1150302025-08-05T06:31:25.368ZYES2025 Project PromotionsNOhttps://video.igem.org/w/htQruSji2QD8DG8Pg78G7rhttps://video.igem.org/lazy-static/thumbnails/860b5faa-1f81-4522-8bd6-314969a00f27.jpgGuanghua-ShanghaiU: Modular attenuated vaccine development for sustainable aquac... (2025) - Proj...**Title:** Modular attenuated vaccine development for sustainable aquaculture **Description:** The aquaculture industry is facing severe challenges brought by bacterial diseases, among which the incidence and mortality rate of large yellow croaker visceral white spot disease caused by Pseudomonas plecoglossicida is as high as 70-80%, causing direct economic losses of more than 600 million yuan in the large yellow croaker farming industry every year. Visceral white spot disease is difficult to detect in the early stage, spreads quickly, and it is difficult to grasp the treatment timing during the breeding process. Traditional treatment methods are mainly antibiotic treatment, and the overuse of antibiotics not only induces new drug-resistant strains, but also poses a serious threat to the marine ecological environment. Therefore, our project uses bioinformatics to screen out the key virulence factors of pathogenic bacteria. Next, the modified virulence factors were verified by using engineered bacteria such as Escherichia coli BL21 (DE3). These key virulence factors will serve as candidate targets for the development of new live attenuated vaccines, blocking pathogens at the source and providing the industry with safer and long-term solutions to reduce the prevalence of large yellow croaker, improve survival rates, and achieve sustainable and healthy farming. [Wiki](https://2025.igem.wiki/guanghua-shanghaiu) | [Official Page](https://teams.igem.org/5991)https://static.igem.org/peertube/streaming-playlists/hls/857526fe-afcf-4e11-ad10-be5e75cfb62d/19c7c417-f45d-4120-9d41-11bbfdf58ef9-master.m3u8https://video.igem.org/videos/embed/htQruSji2QD8DG8Pg78G7r1210162025-08-06T01:45:07.240ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cmoTpsjodgKzmN31k29QmNhttps://video.igem.org/lazy-static/thumbnails/a3909842-421d-421b-8072-058f9a56ceca.jpgUlink-SZ: Unburdened Intimacy: A Natural Shield of Antimicrobial Peptides Agains... (2025) - Proj...**Title:** Unburdened Intimacy: A Natural Shield of Antimicrobial Peptides Against Zoonotic Bacteria **Description:** As pet companionship becomes more common, zoonotic bacterial infections are an increasing health concern. Many current antibacterial products are irritating, ineffective, or may lead to bacterial resistance, making them unsuitable for daily use. Must we choose between closeness and safety? We believe not. Using synthetic biology, we engineered E. coli to efficiently produce optimized natural antimicrobial peptides. Based on this, we developed a gentle, safe, and broad-spectrum antibacterial spray for pets. Our project aims to inhibit common zoonotic pathogens while ensuring ecological safety and user convenience—helping pet families enjoy close companionship with confidence and peace of mind. [Wiki](https://2025.igem.wiki/ulink-sz) | [Official Page](https://teams.igem.org/6017)https://static.igem.org/peertube/streaming-playlists/hls/5bed813c-b3be-4fef-be20-c622ffa38ba6/dd8a3e1e-0a21-4fc4-b0f1-ec1f29b56420-master.m3u8https://video.igem.org/videos/embed/cmoTpsjodgKzmN31k29QmN1200182025-08-06T03:34:31.499ZYES2025 Project PromotionsNOhttps://video.igem.org/w/fGC6EEGRAX6vUT7DRgmijEhttps://video.igem.org/lazy-static/thumbnails/830d8a30-bcac-4a22-9528-9fbf0a96c0f8.jpgHangzhou-SDG: Smart Oral Contraceptive System for Humane Feral Cat Population Co... (2025) - Proj...**Title:** Smart Oral Contraceptive System for Humane Feral Cat Population Control **Description:** As urban feral cat populations continue to grow, ecological balance, public health, and animal welfare are increasingly threatened. To address this, we designed an oral contraceptive peptide based on a cyclized GnRH antagonist that competitively blocks reproductive hormone signaling without affecting pregnant animals. By optimizing peptide stability through sequence modification and disulfide ring formation, and co-administering with SNAC to enhance gastrointestinal absorption, we enable effective oral delivery. Combined with an AI-powered smart feeder that ensures individual-controlled dosing, our system offers a humane, scalable solution for non-surgical feral cat population control. [Wiki](https://2025.igem.wiki/hangzhou-sdg) | [Official Page](https://teams.igem.org/5990)https://static.igem.org/peertube/streaming-playlists/hls/770bf023-4e0a-4c6b-855b-a2bb5ef3838e/f6b3d92a-ecbd-469c-bdb1-aec5a8ea37dc-master.m3u8https://video.igem.org/videos/embed/fGC6EEGRAX6vUT7DRgmijE1160392025-08-06T06:24:05.334ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rUgVFvotLScMAeeSd18TkAhttps://video.igem.org/lazy-static/thumbnails/be4235f0-3b90-4c66-8392-4b02ae75bec2.jpgXMU-China: CRUSTA - Circular Reutilization of Untapped Seafood-shell: Transforma... (2025) - Proj...**Title:** CRUSTA - Circular Reutilization of Untapped Seafood-shell: Transformation into Antimicrobial-preservatives **Description:** Ocean, cradle of life. Also the cradle of waste? Every year, along the Fujian coast, we harvest >500 000 tons of shrimp and crab—then throw their shells away. Meanwhile, 15 % of all seafood spoils before it ever reaches a plate, while energy-hungry cold chains and chemical preservatives raise sustainability and safety concerns. What if the solution to spoilage is hiding inside the shells we discard? Meet Crusta: our 2025 iGEM project that up-cycles discarded crustacean shells into natural chitosan oligosaccharides—a powerful, green preservative that keeps seafood fresh without the environmental cost. [Wiki](https://2025.igem.wiki/xmu-china) | [Official Page](https://teams.igem.org/5549)https://static.igem.org/peertube/streaming-playlists/hls/d1c0f4fd-fea0-4480-8262-1bebcada6b34/6a652b76-52e0-4944-ac14-f7d88bbb9b9d-master.m3u8https://video.igem.org/videos/embed/rUgVFvotLScMAeeSd18TkA1175572025-08-06T08:12:07.516ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sjhtu8si1Ago2Po1jpriZmhttps://video.igem.org/lazy-static/thumbnails/189df141-dc61-48ee-accc-407b48c45d50.jpgXMU-China: Team members introduction (2025)A video introducing the members of the 2025 XMU-China team.https://static.igem.org/peertube/streaming-playlists/hls/d51b2539-7a44-44e1-a27b-d8c7f8b52bfa/5f7de3c6-2852-47a6-97cc-e59915830ed2-master.m3u8https://video.igem.org/videos/embed/sjhtu8si1Ago2Po1jpriZm8701512025-08-06T09:38:20.083ZXMU-ChinaYES2025 TeamsNOhttps://video.igem.org/w/raqbWmAv5LsGWkeEcGm79Lhttps://video.igem.org/lazy-static/thumbnails/5e7f68e5-2312-4f37-a17e-7a76a88b345a.jpgGCGS: BioBeads Rescue: Engineering E. coli to Produce Biodegradable PHA Microbeads (2025) - Proje...**Title:** BioBeads Rescue: Engineering E. coli to Produce Biodegradable PHA Microbeads **Description:** Cosmetics, toothpaste, and similar products often contain plastic microbeads that increase friction. These microbeads, typically made of non-biodegradable polyethylene, enter oceans via urban drainage systems in large quantities each year. Mistakenly consumed by fish, they enter the food chain, threatening ecosystems and human health. Our solution is BioBeads—a biodegradable alternative made from microbially synthesized PHA, a natural bioplastic. By replacing non-degradable plastic microbeads, we aim to protect marine environments. [Wiki](https://2025.igem.wiki/gcgs) | [Official Page](https://teams.igem.org/5746)https://static.igem.org/peertube/streaming-playlists/hls/cbc51131-d5a1-4a24-8455-67b27ddf6954/b54c4250-5a74-446f-9c19-1b322dd6196d-master.m3u8https://video.igem.org/videos/embed/raqbWmAv5LsGWkeEcGm79L1170132025-08-06T09:59:22.196ZYES2025 Project PromotionsNOhttps://video.igem.org/w/kVZXBxSJEwAvSn35g9X2xshttps://video.igem.org/lazy-static/thumbnails/381f3431-2bf5-4046-a7f5-f5c84fbb7aa9.jpgBASIS-China: SnaPFAS (with Chinese subtitles) (2025) - Project Promotion [Chinese]**Title:** SnaPFAS (with Chinese subtitles) **Description:** This is the video that introduces the basics of our project named SnaPFAS. The video includes the brief definition about what are PFAS, their harms, currently known solutions and their flaws, and lastly our solution via degrading PFAS (specifically PFOA). [Wiki](https://2025.igem.wiki/basis-china) | [Official Page](https://teams.igem.org/5610)https://static.igem.org/peertube/streaming-playlists/hls/a167c5d3-599f-42ae-b9d7-30aaa68d5abc/b506b537-294b-4ece-a92f-00570f486078-master.m3u8https://video.igem.org/videos/embed/kVZXBxSJEwAvSn35g9X2xs1215232025-08-06T23:41:24.777ZYES2025 Project PromotionsNOhttps://video.igem.org/w/fZHcbbL58Mn5LCuBcVLYJbhttps://video.igem.org/lazy-static/thumbnails/51990cc9-a749-4348-bbf6-aebaa1edf670.jpgTsinglan: AllerGONE (2025) - Project Promotion [English]**Title:** AllerGONE **Description:** Allergic symptoms are becoming an increasingly serious public health issue worldwide, particularly in Guangdong. Our project aims to optimize allergen-specific immunotherapy (AIT) by combining hypoallergenic fusion proteins with microneedle delivery technology to achieve safer and more effective desensitization treatment. [Wiki](https://2025.igem.wiki/tsinglan) | [Official Page](https://teams.igem.org/5747)https://static.igem.org/peertube/streaming-playlists/hls/796eb8d6-7abe-4b81-890d-28b168698f3e/267815b0-1444-4915-8533-23f3a009a6a3-master.m3u8https://video.igem.org/videos/embed/fZHcbbL58Mn5LCuBcVLYJb1165262025-08-07T02:28:53.186ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oyUMLtgrWZzSTkZ89AeDkphttps://video.igem.org/lazy-static/thumbnails/c43899ab-9f4a-40c1-b31d-f51d006fda6e.jpgQYZX-China: Jelly Pro (2025) - Project Promotion [English]**Title:** Jelly Pro **Description:** Diabetes affects 8.28 billion adults worldwide, with type 2 diabetes accounting for 90%. Type 2 diabetes is caused by insulin resistance and beta cell dysfunction, and is driven by genetic susceptibility, obesity and a sedentary lifestyle. Common symptoms of diabetes include polydipsia, polyphagia, polyuria and weight loss. They can also cause vascular damage and increase the risk of cardiovascular diseases, neuropathy, retinopathy and kidney failure. The existing treatments include oral hypoglycemic drugs and insulin injections. After consulting relevant literature, we found that GLP-1 is an important component of the new therapy，so we decide to make a product that have GLP-1 can help to treat diabetes. [Wiki](https://2025.igem.wiki/qyzx-china) | [Official Page](https://teams.igem.org/6009)https://static.igem.org/peertube/streaming-playlists/hls/b6c16232-c3f5-4be1-b1f5-0f61e3d1cb01/9b7d3d28-6327-45de-bef9-e1fda533e08d-master.m3u8https://video.igem.org/videos/embed/oyUMLtgrWZzSTkZ89AeDkp1210152025-08-07T03:24:51.105ZYES2025 Project PromotionsNOhttps://video.igem.org/w/kdZHKDoCu7QNdTLKCgt4ichttps://video.igem.org/lazy-static/thumbnails/5a329366-8fdc-48cf-a93c-a5ce4f10d961.jpgHongwen School: SmokeOff: Engineering Enzymes to Block TSNAs Formation from Thir... (2025) - Proj...**Title:** SmokeOff: Engineering Enzymes to Block TSNAs Formation from Third-Hand Smoke **Description:** Globally, more than 1.3 billion people use tobacco. While the dangers of first- and second-hand smoke are widely recognized, third-hand smoke—residual pollutants that settle on clothing, furniture, walls, and dust—remains an underappreciated health threat. Among its most hazardous constituents are tobacco-specific nitrosamines (TSNAs), formed through the reaction of residual nicotine with airborne nitrite. TSNAs are strongly carcinogenic and highly resistant to degradation. To address this, we propose a dual-enzyme strategy: NicA, NicB, and NicC for the degradation of surface nicotine, and NirS, NorB, and NosZ for the removal of environmental nitrite. By preventing TSNA formation at the source, this biosafe and sustainable enzyme-based spray presents a novel synthetic biology approach to indoor environmental detoxification. [Wiki](https://2025.igem.wiki/hongwen-school) | [Official Page](https://teams.igem.org/5935)https://static.igem.org/peertube/streaming-playlists/hls/9bae2183-92ec-43e2-a16b-467905a999b9/935d2d18-5454-40be-ba4e-125ea7ba54c8-master.m3u8https://video.igem.org/videos/embed/kdZHKDoCu7QNdTLKCgt4ic1120172025-08-07T03:56:25.954ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2G8u66qRXCpA1nftr3M1EXhttps://video.igem.org/lazy-static/thumbnails/eb4b1ce8-2e58-45e0-8fad-028944a7c919.jpgGXU-China: Lumi-guard (2025) - Project Promotion [English]**Title:** Lumi-guard **Description:** Our GXU-China team is dedicated to addressing the challenge of Helicobacter pylori infection using synthetic biology. Our therapeutic approach involves patients orally ingesting a capsule containing attenuated, engineered Helicobacter pylori bacteria, combined with abdominal near-infrared (NIR) light irradiation. By synergistically integrating Luminescence (NIR/Blue Light), Quorum Sensing, and Suicide Modules, our engineered system aims to provide a safe, efficient, and targeted therapeutic strategy against Helicobacter pylori infection and its potential complications, including gastric cancer. [Wiki](https://2025.igem.wiki/gxu-china) | [Official Page](https://teams.igem.org/5845)https://static.igem.org/peertube/streaming-playlists/hls/0db38076-6bb0-4fc6-b1f6-953b9f23695b/8ddcc45b-2b56-4c7f-9361-08d4ca0671a0-master.m3u8https://video.igem.org/videos/embed/2G8u66qRXCpA1nftr3M1EX1220142025-08-07T07:25:49.896ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mv6We2KurT2bB1egYdMLx8https://video.igem.org/lazy-static/thumbnails/565720e0-4969-4adb-a407-87931a340434.jpgSaint-Joseph: GluClear (2025) - Project Promotion [English]**Title:** GluClear **Description:** GluClear is our solution to a common problem for people with gluten sensitivity: cross-contamination. Using the enzyme Bga1903, we engineered a new mutant version for better gluten breakdown—making eating out safer and less stressful. Check out our video to see how we turned enzyme engineering into peace of mind at mealtime! [Wiki](https://2025.igem.wiki/saint-joseph) | [Official Page](https://teams.igem.org/5704)https://static.igem.org/peertube/streaming-playlists/hls/a6070003-0feb-4036-9958-a1af1f0f8e45/56f3b7c8-330a-4b25-a75e-2491ba5d758d-master.m3u8https://video.igem.org/videos/embed/mv6We2KurT2bB1egYdMLx81170192025-08-07T17:41:33.480ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mfUWwgNVkCzey84u3gUBPThttps://video.igem.org/lazy-static/thumbnails/6a7dbd70-7333-46b0-b584-6c6963ff3fb3.jpgUSP-Brazil: Glycosi-N-ation: Designing microbial models for the synthesis of Hum... (2025) - Proj...**Title:** Glycosi-N-ation: Designing microbial models for the synthesis of Human Glycoproteins **Description:** A manager returns from vacation to find her company in financial chaos. The traditional method for producing therapeutic proteins using hamster cells has proven too expensive and time-consuming, causing investors to pull their funding. Faced with a crisis, the team presents an innovative solution developed for the iGEM competition. Their project, "Glycosi-N-ation", uses synthetic biology to engineer microbial factories for producing complex human proteins more efficiently and affordably. The presentation outlines a two-pronged approach: Yeast Engineering (Saccharomyces cerevisiae): Modifying the yeast's natural glycosylation pathway by deleting non-essential genes to create proteins with human-like modifications. Bacteria Engineering (Escherichia coli): Introducing a new, custom-built genetic pathway to enable bacteria, which normally lack this machinery, to produce the desired glycosylated proteins. As a proof of concept, they showcase the successful production of Recombinant Glucocerebrosidase (GCase), a crucial enzyme used to treat Gaucher's disease, demonstrating the project's potential to make life-saving medicine more accessible. [Wiki](https://2025.igem.wiki/usp-brazil) | [Official Page](https://teams.igem.org/5548)https://static.igem.org/peertube/streaming-playlists/hls/a40bcfba-2dac-41bb-90bd-29d17a6ee795/ac2f1a69-7474-4c5b-955b-9cc03a2c7e36-master.m3u8https://video.igem.org/videos/embed/mfUWwgNVkCzey84u3gUBPT1210252025-08-07T22:07:48.974ZYES2025 Project PromotionsNOhttps://video.igem.org/w/o4B4kygfJ6NBSRYp2gYVA7https://video.igem.org/lazy-static/thumbnails/4ef2f2c5-98cf-4351-9dcd-2f9a91d17187.jpgULethbridge: Hyaluronext (2025) - Project Promotion [English]**Title:** Hyaluronext **Description:** Hyaluronext is aims to revolutionize the biomanufacturing process of hyaluronic acid (HA) through the metabolic engineering of E. coli. Central to our approach is OSAGE (Open-Source Automated Genome Engineering), a low-cost, open-source alternative to MAGE. While MAGE enables powerful multiplexed DNA editing, its reliance on expensive, specialized equipment limits access for many labs and classrooms. OSAGE addresses this barrier by integrating affordable components—sensors, heaters, and pumps—into a modular, programmable device that enables precise control over genome editing and other lab processes. Using OSAGE, we plan to engineer E. coli to produce hyaluronic acid, providing a safer, more ethical, and potentially more sustainable alternative to conventional animal- or pathogen-derived production methods. [Wiki](https://2025.igem.wiki/ulethbridge) | [Official Page](https://teams.igem.org/5563)https://static.igem.org/peertube/streaming-playlists/hls/b2a9e305-a573-411b-b091-d8a936f95f3e/0b6eb16e-f1a7-4cc4-a228-c69893eec27b-master.m3u8https://video.igem.org/videos/embed/o4B4kygfJ6NBSRYp2gYVA71230302025-08-08T01:55:56.598ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7cv7L1xqFJJ7SAfWyfvnx6https://video.igem.org/lazy-static/thumbnails/db1bf149-317d-4010-84ee-0fd308688b30.jpgChalmers-Gothenburg: LATCH (2025) - Project Promotion [English]**Title:** LATCH **Description:** Join us the gothenburg-chalmers team in our fight against candida infections! [Wiki](https://2025.igem.wiki/chalmers-gothenburg) | [Official Page](https://teams.igem.org/5796)https://static.igem.org/peertube/streaming-playlists/hls/3231f506-710c-48c1-bd6f-fe0fe78c1ee7/a464e282-b000-406c-997f-9ecc3a6f8ac3-master.m3u8https://video.igem.org/videos/embed/7cv7L1xqFJJ7SAfWyfvnx61210652025-08-08T10:51:37.820ZYES2025 Project PromotionsNOhttps://video.igem.org/w/8fiAf9TmfzVRJnE6Rbzs7ghttps://video.igem.org/lazy-static/thumbnails/82503c76-f633-4f00-80ad-6cec9f01884a.jpgPatras: logo background (2025)Will be embedded in https://2025.igem.wiki/patras/https://static.igem.org/peertube/streaming-playlists/hls/3aaf3950-0e61-4ecb-8d16-d61336c8dfbb/d2a0ad24-057d-41b0-bc4f-ba6412c24b48-master.m3u8https://video.igem.org/videos/embed/8fiAf9TmfzVRJnE6Rbzs7g707242025-08-08T10:47:34.104ZYES2025 TeamsNOhttps://video.igem.org/w/hLVuHv5JXDvXAC2a1Wpe5Phttps://video.igem.org/lazy-static/thumbnails/6fbd1c25-dc31-4f38-9351-78f66ff866de.jpgTsukuba: CERES and LEAPS (2025) - Project Promotion [English]**Title:** CERES and LEAPS **Description:** This is a Promotion Video of iGEM TSUKUBA in 2025 ! [Wiki](https://2025.igem.wiki/tsukuba) | [Official Page](https://teams.igem.org/5680)https://static.igem.org/peertube/streaming-playlists/hls/87d7e976-75c2-4877-8467-1f4d971275a3/677d3fa8-be5a-47fe-97cd-6dd0ecee7424-master.m3u8https://video.igem.org/videos/embed/hLVuHv5JXDvXAC2a1Wpe5P1160702025-08-08T12:34:20.840ZYES2025 Project PromotionsNOhttps://video.igem.org/w/a6UJXYbiWFzGyRH6S8dm4Vhttps://video.igem.org/lazy-static/thumbnails/be675c24-cb7f-415d-9541-466dda7cdaef.jpgDUT-China: Modular mRNA precision therapeutics for liver cancer (2025) - Project Promotion [English]**Title:** Modular mRNA precision therapeutics for liver cancer **Description:** Every year, liver cancer claims over 800,000 lives worldwide, disrupting families, dreams, and futures. The DUT iGEM 2025 team is developing a modular mRNA therapy designed to “rewrite” cellular communication by silencing harmful proteins like TGF-β and restoring key regulators like HNF4α. Through precision, programmability, and reduced side effects, our approach aims to bring healing where conventional treatments fall short. This video shares our vision, our science, and our hope for a future where biology becomes a language of cure rather than disease. [Wiki](https://2025.igem.wiki/dut-china) | [Official Page](https://teams.igem.org/5844)https://static.igem.org/peertube/streaming-playlists/hls/49b5782d-b7ec-4ffb-b979-ee24b65a4d03/e8acf5dd-58da-454a-9ef1-f251be24eeab-master.m3u8https://video.igem.org/videos/embed/a6UJXYbiWFzGyRH6S8dm4V1200702025-08-08T13:52:13.762ZYES2025 Project PromotionsNOhttps://video.igem.org/w/krHjwoN7v2CAy9vcFizPWghttps://video.igem.org/lazy-static/thumbnails/a5811026-a112-4b03-913d-688691230611.jpgNanjing-China: A surprised crush 🧑‍🔬😍🦠 (2025) - Project Promotion [English]**Title:** A surprised crush 🧑‍🔬😍🦠 **Description:** “Many years later as he faced the mortal cancer cells, Dr. Yuhao was to remember that distant afternoon when his curiosity took him to discover the colony of Serratia marcescens on his tooth brush.” Our 2025 Nanjing-China team is modifying the bacteria Serratia marcescens (which naturally makes prodigiosin) to create a living drug delivery system, which will use prodigiosin's cancer-fighting abilities in smarter ways, offering new ideas for bacterial medicines. The project achieves precise prodigiosin delivery and efficient utilization through attenuated virulence and enhanced targeting of the engineered bacteria: prodigiosin directly induces tumor cell apoptosis while collaboratively activating the tumor immune micro-environment to amplify tumor-killing efficacy. [Wiki](https://2025.igem.wiki/nanjing-china) | [Official Page](https://teams.igem.org/5650)https://static.igem.org/peertube/streaming-playlists/hls/9d74b158-dd8c-4bab-b8f7-e774cd9eb3bf/a522ef7c-9e79-4068-be34-ca92757ab281-master.m3u8https://video.igem.org/videos/embed/krHjwoN7v2CAy9vcFizPWg1215582025-08-08T16:09:03.494ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2rMVZ54DMyufXHLFbMGCUGhttps://video.igem.org/lazy-static/thumbnails/c6511925-e92f-4cce-8938-06d0d7ace961.jpgLethbridgeHS: RhizoRetention (2025) - Project Promotion [English]**Title:** RhizoRetention **Description:** In Alberta, more than 14 000 farmers grow over 6.6 million acres of canola every year. Canola is Canada’s most valuable crop, as it contributes over $29.9 billion annually to the economy. However, increasing challenges with climate change threaten the productivity of this sector. Conditions such as persistent drought have become a great concern to canola producers. Drought-resistant canola can be engineered through a collective approach combining plant-growth-promoting rhizobacteria and RNA interference (RNAi) to silence negative regulators of drought tolerance. A 2020 study using the model plant Arabidopsis thaliana, showed that overexpression of bHLH61 impaired plant drought tolerance. However, when this gene was mutated the plants showed increased drought tolerance. There is a homologous gene found in canola and we predict that by knocking down expression of bHLH61 in canola, we can improve the drought tolerance of the crop. We will engineer Arthrobacter globiformis to express siRNA targeting the bHLH61 gene and incorporate the bacteria as part of the seed coating. The engineered bacteria can colonize the canola roots, delivering dsRNA to silence the bHLH61 gene while concurrently activating host stress response pathways to improve drought tolerance. [Wiki](https://2025.igem.wiki/lethbridgehs) | [Official Page](https://teams.igem.org/5677)https://static.igem.org/peertube/streaming-playlists/hls/0bb309eb-3726-48e7-b55a-3d8655a5d810/139336b3-6ef3-40ee-9573-a2c6bef0fabc-master.m3u8https://video.igem.org/videos/embed/2rMVZ54DMyufXHLFbMGCUG1110202025-08-08T16:20:03.005ZYES2025 Project PromotionsNOhttps://video.igem.org/w/4Z5wTSLp9PrpXFj1NCMZQuhttps://video.igem.org/lazy-static/thumbnails/054648c5-e534-4488-8fab-943d5e551cfa.jpgHK-Joint-School: PestiGuard - The Smart Aptamer Biosensor (2025) - Project Promotion [English]**Title:** PestiGuard - The Smart Aptamer Biosensor **Description:** PestiGuard : an innovative biosensor empowering consumers to detect pesticide residues directly in their food. Our solution leverages synthetic biology and smart technology for safety and informed choices. At its core, PestiGuard uses a specialized aptamer designed to bind target pesticides. This binding event disrupts the expression of a reporter gene. When a crop sample is tested using our kit, the presence of pesticides causes a loss of fluorescence – a dimmer result indicates higher contamination, while brightness signifies safety. To make detection precise and user-friendly, we've developed advanced companion software. Simply take a photo of the test result. Our software instantly analyzes the color intensity, compares it to a calibrated safety reference bar, and clearly displays the pesticide level. The app also securely stores your test history for easy tracking and allows data deletion when needed. PestiGuard transforms complex lab testing into a simple, visual, and accessible process. We're putting the power of food safety directly into consumers' hands, enabling healthier lives through informed decisions. Choose safety, choose PestiGuard. [Wiki](https://2025.igem.wiki/hk-joint-school) | [Official Page](https://teams.igem.org/5627)https://static.igem.org/peertube/streaming-playlists/hls/20439aae-4eae-45a0-bb5b-e4e3b7d6f808/ecc26342-0f51-46a2-866d-eeaa9d8773ab-master.m3u8https://video.igem.org/videos/embed/4Z5wTSLp9PrpXFj1NCMZQu1120382025-08-08T18:03:13.804ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9A1QFPesgWbgcRMQ9HmWgKhttps://video.igem.org/lazy-static/thumbnails/587cc311-4242-4341-bcdd-c4e09680fcc4.jpgGEMS-Taiwan: Textile Fighters - degrading PET Cotton Blends [English] (2025) - Project Promotion ...**Title:** Textile Fighters - degrading PET Cotton Blends [English] **Description:** Textile solutions are urgently needed as the industry’s massive waste and pollution threaten ecosystems and accelerate climate change. We engineered Tfcut2 and celluluases to degrade PET cotton blends, reducing landfill accumulation and paving the way for sustainable recycling in the textile industry. [Wiki](https://2025.igem.wiki/gems-taiwan) | [Official Page](https://teams.igem.org/5729)https://static.igem.org/peertube/streaming-playlists/hls/4588ea2e-7d26-41f8-9aca-63221c4ed859/dcff1ad4-0aaa-4145-8b6c-33995d1ef54e-master.m3u8https://video.igem.org/videos/embed/9A1QFPesgWbgcRMQ9HmWgK1190902025-08-09T06:16:31.048ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nq4bi4FJAi8hys1QGAEzFzhttps://video.igem.org/lazy-static/thumbnails/c2cb6f0c-4823-4117-bd34-a812f4abb17c.jpgFHS-NB-ZJ-China: GumEraser+: Saving Peach From Gummosis (2025) - Project Promotion [English]**Title:** GumEraser+: Saving Peach From Gummosis **Description:** This video is a short clip. Some content is conceptual, representing our positive vision for the future. Peach gummosis, which can be induced by fungal pathogens, insect pests, physical damage, and other factors, significantly compromises the health and survival of peach trees. Exogenous RNAi-based crop protection strategies are emerging as a sustainable and environmentally friendly form of pesticide. It is our hope to develop an RNAi biopesticide that specifically targets the pathogens responsible for peach gummosis in the near future. Additionally, we aim to investigate peach chitinase, which may confer resistance against pests and fungal infections through overexpression. [Wiki](https://2025.igem.wiki/fhs-nb-zj-china) | [Official Page](https://teams.igem.org/5595)https://static.igem.org/peertube/streaming-playlists/hls/ad6bb874-fed3-44d7-8aec-f71a5d91a7ab/0c90b8e5-14ea-47b8-b132-680087b8c8ae-master.m3u8https://video.igem.org/videos/embed/nq4bi4FJAi8hys1QGAEzFz1230292025-08-09T08:46:38.680ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nGKuiFoRqsDxm7hjSxhdf2https://video.igem.org/lazy-static/thumbnails/9aa0831b-20dd-4be8-b88b-9c68454a0133.jpgYiYe-china: A CRISPR/Cas9-based knockout of TEAD4 enhances breast cancer therapy (2025) - Project...**Title:** A CRISPR/Cas9-based knockout of TEAD4 enhances breast cancer therapy **Description:** Breast cancer remains one of the most prevalent cancers and a leading cause of cancer-related deaths among women worldwide. The Hippo signaling pathway, which includes key components such as large tumor-associated kinases, and the transcriptional coactivators Yes-associated protein (YAP) and TEAD4, plays a critical role in regulating cell growth. TEAD4, a member of the TEAD family, is a transcription factor that interacts with YAP to regulate the expression of genes involved in cell proliferation, migration, and survival. Dysregulation of the Hippo pathway results in the accumulation of YAP/TEAD4, leading to abnormal gene expression that promotes tumor progression. Recent studies have identified TEAD4 as a crucial player in breast cancer development. In our research, we utilized the CRISPR-Cas9 system to design specific single guide RNAs (sgRNAs) that target and knock out TEAD4 in breast cancer cells. This genetic manipulation showed promising results in inhibiting cell proliferation, migration, and invasion. Furthermore, our bioinformatics analysis reinforced the critical role of TEAD4 in tumorigenesis. [Official Page](https://teams.igem.org/5722)https://static.igem.org/peertube/streaming-playlists/hls/afc0768d-c3a8-44ab-ad7e-e93815badc0d/9ba57a86-b1db-44b6-a616-209ca8d41a4b-master.m3u8https://video.igem.org/videos/embed/nGKuiFoRqsDxm7hjSxhdf21230242025-08-09T14:40:30.894ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tw2N7rAH9V9Rk7DXn1hXbYhttps://video.igem.org/lazy-static/thumbnails/3539e9e2-0c11-4df0-8e6c-c08d4067513a.jpgISBICSKIS-BKK: SAUR-eus Introduction (2025) - Project Promotion [English]**Title:** SAUR-eus Introduction **Description:** Our iGEM team is tackling one of the biggest threats to modern medicine — antibiotic resistance. Using CRISPR-Cas9, we target and destroy MRSA from the inside by disabling essential genes for bacterial survival. In the future, we aim to deliver this system using bacteriophages for precise, targeted treatment. This fusion of synthetic biology and natural vectors could pave the way for a stronger, healthier future free from superbug threats. [Wiki](https://2025.igem.wiki/isbicskis-bkk) | [Official Page](https://teams.igem.org/5683)https://static.igem.org/peertube/streaming-playlists/hls/ded829c3-7a31-431d-bf9e-d9645b76c218/8563fa66-12db-4d15-8abd-c7813f181740-master.m3u8https://video.igem.org/videos/embed/tw2N7rAH9V9Rk7DXn1hXbY1230232025-08-09T15:55:21.951ZYES2025 Project PromotionsNOhttps://video.igem.org/w/aMtaVgejx3gTkcqJ7rZZaPhttps://video.igem.org/lazy-static/thumbnails/c0a437de-5063-421c-83ab-c6fd862aae30.jpgISBICSKIS-BKK: SAUR-eus Introduction (ver. ไทย/Thai) (2025) - Project Promotion [Thai]**Title:** SAUR-eus Introduction (ver. ไทย/Thai) **Description:** ทีม iGEM ของเรากำลังรับมือกับหนึ่งในภัยคุกคามที่ใหญ่ที่สุดต่อการแพทย์สมัยใหม่ — การดื้อยาปฏิชีวนะ เราใช้เทคโนโลยี CRISPR-Cas9 เพื่อกำหนดเป้าหมายและทำลาย MRSA จากภายใน โดยปิดการทำงานของยีนสำคัญที่จำเป็นต่อการอยู่รอดของแบคทีเรีย ในอนาคต เรามีแผนส่งระบบนี้ด้วยแบคเทอริโอเฟจ เพื่อการรักษาที่แม่นยำและตรงเป้าหมาย การผสานระหว่างชีววิทยาสังเคราะห์กับพาหะตามธรรมชาตินี้ อาจเปิดทางสู่อนาคตที่แข็งแรงและปลอดภัยจากภัยซูเปอร์บัก [Wiki](https://2025.igem.wiki/isbicskis-bkk) | [Official Page](https://teams.igem.org/5683)https://static.igem.org/peertube/streaming-playlists/hls/4f3b765a-6829-4a17-a4f7-3a7bcc2889f5/c656a5ca-4907-4c51-819f-71c596aa32d8-master.m3u8https://video.igem.org/videos/embed/aMtaVgejx3gTkcqJ7rZZaP123082025-08-09T16:31:57.338ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bLV4WAE1VBGPNVM8ywCU61https://video.igem.org/lazy-static/thumbnails/65bf02a1-e526-4dae-99cd-86384bfaea29.jpgISBICSKIS-BKK: SAUR-eus Introduction (ver. 中文/Chinese) (2025) - Project Promotion [Chinese]**Title:** SAUR-eus Introduction (ver. 中文/Chinese) **Description:** 我们iGEM团队正致力于应对现代医学面临的重大威胁——病菌抗生素耐药性。通过运用CRISPR-Cas9基因编辑技术，我们从内部精准靶向并摧毁耐甲氧西林的金黄色葡萄球菌（MRSA），通过破坏细菌生存必备的基因实现杀菌效果。未来，我们计划借助噬菌体递送这一系统，实现精确的靶向治疗。这种合成生物学与天然载体的创新融合，或将开辟一条通往超级细菌威胁可控的更强大、更健康的未来道路。 [Wiki](https://2025.igem.wiki/isbicskis-bkk) | [Official Page](https://teams.igem.org/5683)https://static.igem.org/peertube/streaming-playlists/hls/5740d117-bf04-4291-b8af-f678482ec732/d9fbb6be-1f8b-4256-83cc-f660904f01c6-master.m3u8https://video.igem.org/videos/embed/bLV4WAE1VBGPNVM8ywCU61123042025-08-09T16:59:33.528ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7jHt5pXEKjrKgTic3dFcsrhttps://video.igem.org/lazy-static/thumbnails/7034076c-cff8-4c33-9ea5-a5f06d889c36.jpgNCState: Detection and Bioremediation of Polychlorinated Biphenyls (2025) - Project Promotion [En...**Title:** Detection and Bioremediation of Polychlorinated Biphenyls **Description:** Discover the impact of Polychlorinated Biphenyls (PCBs) and how our team is engineering Pseudomonas putida to break them down. Watch as we design innovative aptamers combined with CRISPR technology to detect these harmful pollutants with precision. [Wiki](https://2025.igem.wiki/ncstate) | [Official Page](https://teams.igem.org/5709)https://static.igem.org/peertube/streaming-playlists/hls/3333c650-34bd-477d-9de6-028a816ddee1/381a2677-e701-4b57-b5e7-e3ffa589d2da-master.m3u8https://video.igem.org/videos/embed/7jHt5pXEKjrKgTic3dFcsr1040202025-08-09T22:25:54.210ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vysQx2bakwF9FN7HfLh4Tkhttps://video.igem.org/lazy-static/thumbnails/8033bf0f-73b3-4207-a96b-17e48f2fccd6.jpgHK-HCY-PCMS: Opthera - a Multitarget Biotherapeutic Solution for Glaucoma (2025) - Project Promot...**Title:** Opthera - a Multitarget Biotherapeutic Solution for Glaucoma **Description:** "Save the eyesight with all our will and might..." ----------------------------------------------------------------- iGEM 2025 HK-HCY-PCMS is introducing a multitarget biotherapeutic solution for glaucoma, a disease with increasing prevalence across the globe. How do they tackle such a conundrum with synthetic biology? Watch to find out! [Wiki](https://2025.igem.wiki/hk-hcy-pcms) | [Official Page](https://teams.igem.org/5641)https://static.igem.org/peertube/streaming-playlists/hls/ef615c4c-ffa6-458d-94ed-86a7b69d5e4d/3f7a4023-cd32-4acd-ac15-c6785f2f0801-master.m3u8https://video.igem.org/videos/embed/vysQx2bakwF9FN7HfLh4Tk1195862025-08-10T05:13:09.147ZYES2025 Project PromotionsNOhttps://video.igem.org/w/avTNJsJ3EW84qJwBGfZkUhhttps://video.igem.org/lazy-static/thumbnails/7a63b1d0-67db-4d65-af7e-4a1faf29c90d.jpgNanjing-BioX: SOD Shield: Novel Eye Drops Prevent Oxidative Cataracts (2025) - Project Promotion ...**Title:** SOD Shield: Novel Eye Drops Prevent Oxidative Cataracts **Description:** Cataracts, a leading cause of global blindness, primarily result from oxidative damage to lens proteins, with over 94 million people affected worldwide. Current treatment relies on invasive surgery, which remains inaccessible to many due to cost and healthcare disparities. Superoxide dismutase (SOD), a key antioxidant enzyme, neutralizes reactive oxygen species (ROS) but suffers from instability and rapid degradation, limiting its therapeutic potential. Therefore, Our project leverages computational biology methods such as ancestral sequence reconstruction (ASR) and machine learning (ML) to engineer thermostable and high-activity SOD variants. These variants will be expressed in Escherichia coli BL21(DE3) under optimized conditions, and then affinity chromatographic purification and enzymatic characterization. The SOD variant will be developed as a core ingredient in novel eye drops, providing new solutions for the prevention and early intervention of cataracts, potentially reducing the growing global burden of cataract disease. [Wiki](https://2025.igem.wiki/nanjing-biox) | [Official Page](https://teams.igem.org/5992)https://static.igem.org/peertube/streaming-playlists/hls/4d0ebe61-fc44-4fe5-a68b-256b7c8d440c/727edcbf-8976-4044-ac16-e8cbd02f67af-master.m3u8https://video.igem.org/videos/embed/avTNJsJ3EW84qJwBGfZkUh1200502025-08-10T05:25:02.023ZYES2025 Project PromotionsNOhttps://video.igem.org/w/acbAyfmXmj8FXMFkL2FaLWhttps://video.igem.org/lazy-static/thumbnails/4873c218-dfb5-45bb-b1db-03917fa4cb14.jpgZQT-China: Eco-friendly Bioremediation of Chlorimuron-ethyl Residues for Sustain... (2025) - Proj...**Title:** Eco-friendly Bioremediation of Chlorimuron-ethyl Residues for Sustainable Crop Rotation **Description:** Chlorimuron-ethyl is a herbicide commonly applied in soybean fields to control weeds. However, its residues can persist in the soil, harming wheat seedlings in subsequent rotations by disrupting root growth, photosynthesis, and nutrient uptake. To address this issue, we engineered E. coli to express the PnBA enzyme, which de-esterifies chlorimuron-ethyl into a harmless benzoic acid derivative. Our product is formulated as a freeze-dried bacterial powder, designed for application after soybean harvest and before wheat planting. By reducing herbicide residues, this solution supports healthy wheat growth, protects soil ecosystems, and promotes sustainable crop rotation practices. [Wiki](https://2025.igem.wiki/zqt-china) | [Official Page](https://teams.igem.org/5887)https://static.igem.org/peertube/streaming-playlists/hls/4a71f594-a43e-47c1-b96c-c4a385c5485a/61467703-eaba-4dac-9153-9fe196e2674e-master.m3u8https://video.igem.org/videos/embed/acbAyfmXmj8FXMFkL2FaLW1100202025-08-10T09:03:45.289ZYES2025 Project PromotionsNOhttps://video.igem.org/w/5fXYUeECYQYZ7wrziL9SXThttps://video.igem.org/lazy-static/thumbnails/27830f24-5f42-4c2f-a09a-417a8010c4b7.jpgCCU-Taiwan: AGEs ROBBER: Science That Brings Back Hope (2025) - Project Promotion [English]**Title:** AGEs ROBBER: Science That Brings Back Hope **Description:** In the world of diabetic foot ulcers, there’s an enemy no one can see. An enemy that robs patients of their freedom, their mobility, and their hope. Its name is Advanced Glycation End-products, AGEs. These AGEs bind to the body’s receptors, triggering a relentless cycle of chronic inflammation and agonizing pain. For millions, this isn't just a medical condition, it's a life sentence. But what if there was a way to fight back? A way to reclaim what was lost? We are introducing AGEs ROBBER. This isn’t just science. It’s a revolution. We’ve engineered a weapon, a modified soluble RAGE protein with a supercharged affinity. It's designed to hunt down and capture AGEs before they can do their damage, halting inflammation in its tracks. We’re not just treating symptoms; we’re going straight for the source. And we’re delivering this solution directly to the battlefield with our innovative patch, “AGEs Thwart.” A user-friendly device that promotes rapid wound healing while also standing guard against infection. Our mission is simple, our cause is just: to restore mobility, dignity, and hope to every patient. AGEs ROBBER: The future of healing is here. [Wiki](https://2025.igem.wiki/ccu-taiwan) | [Official Page](https://teams.igem.org/5854)https://static.igem.org/peertube/streaming-playlists/hls/227b778b-00d7-4098-8fdd-2407df3b5011/f0c7c4c3-f8e2-440a-ae9a-a6ff2aa81fba-master.m3u8https://video.igem.org/videos/embed/5fXYUeECYQYZ7wrziL9SXT1230192025-08-10T12:55:04.290ZYES2025 Project PromotionsNOhttps://video.igem.org/w/4XK5GUiSXrdyytd5Vxs2Wjhttps://video.igem.org/lazy-static/thumbnails/ff80f828-4646-475a-8852-a81f5c81f11a.jpgVirginia: The Cysteinator PPV (2025) - Project Promotion [English]**Title:** The Cysteinator PPV **Description:** The Virginia iGEM team's project promotion video for the device "The Cysteinator". [Wiki](https://2025.igem.wiki/virginia) | [Official Page](https://teams.igem.org/5664)https://static.igem.org/peertube/streaming-playlists/hls/2013df7d-fb6a-4fe5-b3f0-40da2edab292/d893658b-39a4-4841-b68e-f5c2b2fdd086-master.m3u8https://video.igem.org/videos/embed/4XK5GUiSXrdyytd5Vxs2Wj1210432025-08-10T14:46:11.369ZYES2025 Project PromotionsNOhttps://video.igem.org/w/x3bQXk1ZQqocD52LAvhDGwhttps://video.igem.org/lazy-static/thumbnails/b5a3138d-fcb1-4721-b363-edebe5a373a3.jpgUM-Macau: The Green Fight Against Termites: Exterminatrix (2025) - Project Promotion [English]**Title:** The Green Fight Against Termites: Exterminatrix **Description:** Exterminatrix - Bugs Be Gone! The termite population is expanding rapidly, causing devastating damage to infrastructure, crops, and—more alarmingly—priceless ancient trees and historic sites preserved for generations. Current pesticides are chemically toxic, unspecific and harmful to the environment. Finding a way to combat large termite swarms without harming our green wealth is a significant challenge. Our innovative approach incorporates protein toxins and a cellulose-pheromone attractant. Drawing on our understanding of termites behavior and synthetic biotechnology; we hope that our aspirations can uncover fresh ideas for creating more green solutions for the termite issue world-wide. Note: All people who appeared in the video are either team members or stock videos taken from Vecteezy.com. No person in the video was filmed without consent. [Wiki](https://2025.igem.wiki/um-macau) | [Official Page](https://teams.igem.org/5698)https://static.igem.org/peertube/streaming-playlists/hls/fb597808-0905-46c5-8099-71703defeb72/2ef04a35-0354-4dff-9064-f060ac44f46b-master.m3u8https://video.igem.org/videos/embed/x3bQXk1ZQqocD52LAvhDGw1180282025-08-10T14:52:00.522ZYES2025 Project PromotionsNOhttps://video.igem.org/w/jMoq6T45SDpcqg3WYxqqEvhttps://video.igem.org/lazy-static/thumbnails/b7e2ead0-2063-4b2d-96a4-e5bc317bd1af.jpgSR-Shenzhen: Turning Bacteria into Time Fighters: Sustainable NMN Production wit... (2025) - Proj...**Title:** Turning Bacteria into Time Fighters: Sustainable NMN Production with Synthetic Biology **Description:** Aging is an inevitable part of life, but its growing impact on global health and social systems calls for innovative solutions. Current NMN production methods face challenges such as high cost, strict reaction requirements, complex processes, and environmental concerns. By leveraging synthetic biology, we re-engineered E. coli to efficiently produce NMN through a tailored biosynthetic pathway. This approach enables lower-cost, eco-friendly, and scalable production, bringing the promise of healthier, more vibrant lives within everyone’s reach. [Wiki](https://2025.igem.wiki/sr-shenzhen) | [Official Page](https://teams.igem.org/5985)https://static.igem.org/peertube/streaming-playlists/hls/981ac793-b8f9-4ec7-b7b4-554e5fb66149/c72e165f-387c-4d02-942e-a0dd7b30f79c-master.m3u8https://video.igem.org/videos/embed/jMoq6T45SDpcqg3WYxqqEv1230672025-08-10T15:45:55.217ZYES2025 Project PromotionsNOhttps://video.igem.org/w/35V6FEpgaRbfwR3tiQgXb9https://video.igem.org/lazy-static/thumbnails/5a7541a5-79d4-4a9a-aac4-b0eef8314d05.jpgCFLS: Bioremediation of Complex Organic Pollutants Using Engineered Escherichia ... (2025) - Proj...**Title:** Bioremediation of Complex Organic Pollutants Using Engineered Escherichia coli Regulated by a Quorum Sensing System **Description:** Escherichia coli is used as the chassis organism in our study. It has been engineered by integrating plasmids containing diverse gene clusters, endowing it with both degradation capabilities and enhanced environmental resistance. These engineered bacteria are applied in a physical interception system, where they break down recalcitrant aromatic pollutants in chemical and pharmaceutical wastewater within specialized containers equipped with filters. Additionally, a temperature-triggered suicide system is incorporated into the bacteria—if they escape the container accidentally, the switch activates to force self-destruction, preventing leakage. [Official Page](https://teams.igem.org/5804)https://static.igem.org/peertube/streaming-playlists/hls/10e1f9a6-ecd2-4f51-92d3-c897eef372c0/3ad0234b-652b-4373-af7a-8d9facec4cf3-master.m3u8https://video.igem.org/videos/embed/35V6FEpgaRbfwR3tiQgXb91150212025-08-10T16:53:42.829ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eSt8p1qBCcHM2vCExC9BgChttps://video.igem.org/lazy-static/thumbnails/0795282d-3b61-4eed-8213-8082103f72e0.jpgKCIS-Xiugang-Taipei: KCIS Xiugang (2025) - Project Promotion [English]**Title:** KCIS Xiugang **Description:** Promotional video for the 2025 KCIS Xiugang iGEM team. [Wiki](https://2025.igem.wiki/kcis-xiugang-taipei) | [Official Page](https://teams.igem.org/5624)https://static.igem.org/peertube/streaming-playlists/hls/7052b581-e983-40ec-bc2b-66d4d6b9ffd6/603b1609-7ccc-4bd8-9e91-7bf1aa52087d-master.m3u8https://video.igem.org/videos/embed/eSt8p1qBCcHM2vCExC9BgC1180262025-08-10T17:54:03.437ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3AgcsswxVk41xaeShEQD3mhttps://video.igem.org/lazy-static/thumbnails/0a6e5b1b-ae28-44dc-8675-56e1abac2c13.jpgKULeuven: PhytoBLOCK - Let's Save the Future of Chocolate! (2025) - Project Promotion [English]**Title:** PhytoBLOCK - Let's Save the Future of Chocolate! **Description:** Black pod disese, caused by Phytophthora species, destroys up to 30% of global cocoa yield each year and threatens the livelihoods of farmers. Our project, PhytoBLOCK, harnesses the natural power of Bacillus subtilis, that is engineered to produce and secrete antimicrobial peptides that selectively inhibit the pathogen. By offering a sustainable, eco-friendly alternative to chemical fungicides, PhytoBLOCK protects cacao crops, reduces environmental harm, and supports long-term agricultural resilience. [Wiki](https://2025.igem.wiki/kuleuven) | [Official Page](https://teams.igem.org/5691)https://static.igem.org/peertube/streaming-playlists/hls/14faee69-f814-4a3f-b2cf-5104739cf09c/912bba7e-d7f6-4396-93fb-1c3637330590-master.m3u8https://video.igem.org/videos/embed/3AgcsswxVk41xaeShEQD3m1190282025-08-10T21:45:31.986ZYES2025 Project PromotionsNOhttps://video.igem.org/w/azTJrfkja6zLSxT1gouTmChttps://video.igem.org/lazy-static/thumbnails/7abed37f-02cd-43de-bde8-9eca22f3dcf0.jpgAshesiGhana: The Living Pentacone (2025) - Project Promotion [English]**Title:** The Living Pentacone **Description:** Our team is tackling a big challenge facing Ghana’s coastline: erosion, plastic pollution, and poor ocean monitoring. Our solution is the Living Pentacone, a sea defense block composed of sand, seawater, and Vibrio natriegens. Beyond protecting the shore from waves, they also act as biosensors that detect changes in ocean health, ranging from pH levels to the presence of some heavy metals. [Wiki](https://2025.igem.wiki/ashesighana) | [Official Page](https://teams.igem.org/5831)https://static.igem.org/peertube/streaming-playlists/hls/4d9dac50-c87a-4a3f-8d17-4411f0a69578/8cc86207-ea50-4017-814e-e8430e6788c0-master.m3u8https://video.igem.org/videos/embed/azTJrfkja6zLSxT1gouTmC12301372025-08-11T01:13:51.899ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uSkZQH8VszyG3q17sDVPeehttps://video.igem.org/lazy-static/thumbnails/0c298956-d539-42cc-8c7b-59346786bace.jpgMPA-USA: Colorectal cancer killer (2025) - Project Promotion [English]**Title:** Colorectal cancer killer **Description:** Colorectal cancer (CRC) is increasingly affecting individuals under the age of 40, with its incidence continuing to rise worldwide. Current treatment options are often invasive and may cause severe side effects. We have developed a precision therapy strategy based on genetically engineered Escherichia coli Nissle 1917 (EcN). Our engineered strain incorporates a genetic circuit similar to an “AND gate,” capable of simultaneously sensing two typical features of tumors: hypoxia and acidity (low pH). First, upon detecting a low pH signal, EcN produces neohesperidin—a natural compound that can inhibit cancer cell growth and promote apoptosis. At the same time, under hypoxic conditions, the engineered bacteria induce the expression of MazE (an antitoxin protein of MazF) to ensure strain survival, while in other environments, the strain is killed by MazF to ensure safety. Our goal is to develop a highly targeted and safer treatment for colorectal cancer, providing a gentler alternative therapy, especially for young patients facing early-onset disease. [Wiki](https://2025.igem.wiki/mpa-usa) | [Official Page](https://teams.igem.org/5964)https://static.igem.org/peertube/streaming-playlists/hls/e9c7650c-14b7-4455-a133-ec1e8a094df3/12b4164b-013e-4ea4-b278-5695d46aa4c8-master.m3u8https://video.igem.org/videos/embed/uSkZQH8VszyG3q17sDVPee1230362025-08-11T02:34:06.767ZYES2025 Project PromotionsNOhttps://video.igem.org/w/4eHy28mwfTF73gMFogAqREhttps://video.igem.org/lazy-static/thumbnails/40d788ec-361c-44dc-9e4a-ae1af1145f21.jpgShanghai-SDG: SCG Detoxification: A Solution for Transforming Waste Coffee Groun... (2025) - Proj...**Title:** SCG Detoxification: A Solution for Transforming Waste Coffee Grounds into Biofertilizers **Description:** The spent coffee ground (SCG) holds significant potential for producing organic fertilizers. Residual caffeine, however, inhibits plant growth due to its phytotoxicity, substantially limiting the application of SCG in bio-fertilizer production. Conventional decaffeination methods suffer from high costs and environmental concerns. Here, we genetically engineered Escherichia coli (E. coli) by integrating genes involved in caffeine degradation, aiming to remove the residual caffeine from SGG during fermentation while producing valuable biofertilizers. Our project provides an eco-friendly and cost-effective solution for the recycling of SCG. The safety and scalability of the engineered E. coli ensure its broad applicability in agriculture, horticulture, and environmental protection. [Wiki](https://2025.igem.wiki/shanghai-sdg) | [Official Page](https://teams.igem.org/5988)https://static.igem.org/peertube/streaming-playlists/hls/1a35b13e-41fd-401e-a275-b116ada3cee0/8064047f-7655-4337-bfdf-763e93b65275-master.m3u8https://video.igem.org/videos/embed/4eHy28mwfTF73gMFogAqRE1220172025-08-11T05:04:23.292ZYES2025 Project PromotionsNOhttps://video.igem.org/w/62UjvnyBF6f7y39tq1kWFLhttps://video.igem.org/lazy-static/thumbnails/dfe680ca-551f-4bde-aa8a-da83412a47a9.jpgHongKong-HS: Innovative Toehold Switch for miRNA Detection in Colorectal Cancer (2025) - Project ...**Title:** Innovative Toehold Switch for miRNA Detection in Colorectal Cancer **Description:** This video introduces HK-HS team's development of a user-friendly toehold switch kit to detect colorectal cancer (CRC) through specific microRNAs in fecal samples. This at- home testing method enhances early detection and personalized medicine by providing a sensitive, non-invasive alternative to traditional tests. With a focus on convenience, specificity, and community impact, we aim to make a positive contribution to global health and raise awareness of CRC. [Wiki](https://2025.igem.wiki/hongkong-hs) | [Official Page](https://teams.igem.org/5600)https://static.igem.org/peertube/streaming-playlists/hls/28c1ae0a-65d0-49eb-afcb-a3354e32bd52/7abffe61-ae8e-46da-ac46-bb8f1ff1ee54-master.m3u8https://video.igem.org/videos/embed/62UjvnyBF6f7y39tq1kWFL1120462025-08-11T05:08:01.748ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tSsnFNXvDyH7Xd6KQsbHkMhttps://video.igem.org/lazy-static/thumbnails/aaaa53f4-685e-4bc8-9716-084a58673449.jpgVERITAS-Prudens: Povano: Turning CO2 Into Sustainable Pet Food (2025) - Project Promotion [English]**Title:** Povano: Turning CO2 Into Sustainable Pet Food **Description:** The pet food industry is a prospective industry and is increasing rapidly; however, it consumes lots of land and meat. Our project provides a promising approach to addressing this issue by shifting from traditional animal-based ingredients to sustainable, biomanufactured alternatives. We use Pichia pastoris, a methylotrophic yeast, as a platform for producing protein substitutes for pet food. Its primary feedstock, methanol, can be derived from atmospheric carbon dioxide. This feature not only offsets production costs but also contributes to reducing greenhouse gas emissions and land use. [Wiki](https://2025.igem.wiki/veritas-prudens) | [Official Page](https://teams.igem.org/6007)https://static.igem.org/peertube/streaming-playlists/hls/e1b22f91-90cb-4266-92b7-f4026c8d29af/080cbeb8-6e66-473c-a3c9-bce7d861b547-master.m3u8https://video.igem.org/videos/embed/tSsnFNXvDyH7Xd6KQsbHkM1200162025-08-11T05:45:39.728ZYES2025 Project PromotionsNOhttps://video.igem.org/w/pAMHwvTu2KyS1tKB9AiKaPhttps://video.igem.org/lazy-static/thumbnails/38eb9274-fee3-494e-ae81-c7f5eb732c83.jpgUprize-II: Green Pest Control Revolution: A Mosquito and Bed Bug Control Solutio... (2025) - Proj...**Title:** Green Pest Control Revolution: A Mosquito and Bed Bug Control Solution Based on E. coli Synthesis **Description:** Against the backdrop of growing pesticide resistance, environmental harm, and escalating public health risks posed by chemical insecticides targeting mosquitoes and bed bugs, our project presents an innovative and sustainable solution: engineering Escherichia coli through genetic modification to biosynthesize citronellal, a naturally derived compound with potent insect-repellent and insecticidal properties. We have constructed a complete metabolic pathway in E. coli to achieve efficient production of citronellal. This solution overcomes key limitations of existing methods: unlike chemical pesticides that exhibit mammalian toxicity and ecological risks, citronellal has low toxicity to humans and is readily biodegradable. It offers a green alternative for managing vector-borne diseases and household pests, while demonstrating the potential of synthetic biology to transform pest control into a sustainable practice. [Wiki](https://2025.igem.wiki/uprize-ii) | [Official Page](https://teams.igem.org/5938)https://static.igem.org/peertube/streaming-playlists/hls/bf1da69c-85f5-4363-b314-265c01342e4d/7403a3f1-89c0-4240-a42f-4dc665a6eaed-master.m3u8https://video.igem.org/videos/embed/pAMHwvTu2KyS1tKB9AiKaP1180332025-08-11T06:35:51.917ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7YnkhBQaBfnPFTkdaBELHuhttps://video.igem.org/lazy-static/thumbnails/4f65bb1a-ea38-4898-a43e-56342460caf1.jpgBioplus-Shanghai: Smart Fluorescent Probes: Engineered E. coli for Real-Time NO ... (2025) - Proj...**Title:** Smart Fluorescent Probes: Engineered E. coli for Real-Time NO Monitoring to Prevent Cardiovascular Crises **Description:** This study innovatively developed a novel genetically encoded NO fluorescent probe based on synthetic biology. The probe utilizes genetically engineered E. coli as a biological vector, coupling a precisely designed NO-sensing protein module with a fluorescent reporting system to achieve highly sensitive and specific real-time monitoring of nitric oxide (NO). As a crucial signaling molecule in cardiovascular diseases, this technology provides a groundbreaking dynamic monitoring approach for early diagnosis of conditions such as atherosclerosis and hypertension.Compared with traditional detection methods, this probe demonstrates significant advantages including simple operation, low cost, and capability for long-term continuous monitoring. [Wiki](https://2025.igem.wiki/bioplus-shanghai) | [Official Page](https://teams.igem.org/5762)https://static.igem.org/peertube/streaming-playlists/hls/3875a135-1551-4ee4-9ba0-5e0b1d0778d6/237315e7-cd39-4df8-9572-62f2ddd9a7a2-master.m3u8https://video.igem.org/videos/embed/7YnkhBQaBfnPFTkdaBELHu1130102025-08-11T07:04:29.431ZYES2025 Project PromotionsNOhttps://video.igem.org/w/28MoiSNAdWsqGH6x3B2UjThttps://video.igem.org/lazy-static/thumbnails/0389593e-582a-4259-88a9-867ac63d4705.jpgHS-Alpha: liginCycle: Scavenger Turns Paper into Profits (2025) - Project Promotion [English]**Title:** liginCycle: Scavenger Turns Paper into Profits **Description:** This study aims to apply synthetic biology to convert lignin- and xylan-rich waste from paper production and recycling into high-value products. Such waste contains carbon sources like ferulic acid, and xylose, yet is costly and inefficient to treat using conventional physicochemical methods, often leading to incineration or landfilling, causing resource loss and environmental burden. We propose engineering Escherichia coli strains capable of tolerating bacteriotoxic compounds in paper mill effluents, expressing XylB to convert xylose into xylonic acid, and expressing FUS and CUS to convert ferulic acid into vanillin. We are also trying to use these waste to produce other valuable products. This approach seeks to enable waste valorization, mitigate pollution, and advance the circular economy. [Wiki](https://2025.igem.wiki/hs-alpha) | [Official Page](https://teams.igem.org/5820)https://static.igem.org/peertube/streaming-playlists/hls/092f5077-2c53-4ee5-a47f-d0f99b5a5d6f/bc039bf2-97d5-41d5-bae0-9b198ff24d46-master.m3u8https://video.igem.org/videos/embed/28MoiSNAdWsqGH6x3B2UjT1200192025-08-11T07:24:55.065ZYES2025 Project PromotionsNOhttps://video.igem.org/w/j78UEsf3mPPNA4k44hM2aShttps://video.igem.org/lazy-static/thumbnails/4a33af6f-8931-42cf-ad4a-435a203d559f.jpgUCS-X: Research on the Application and Combined Effects of Papain Isoenzymes in ... (2025) - Proj...**Title:** Research on the Application and Combined Effects of Papain Isoenzymes in Skincare Products **Description:** Our project aims to enhance skincare formulations through the utilization of isoenzymes derived from papain, a cysteine protease renowned for its gentle exfoliating and moisturizing properties. Papain functions by breaking down keratin proteins in the stratum corneum, thereby facilitating the removal of dead skin cells and promoting skin regeneration. Compared to conventional acid-based peels, papain offers a far gentler and more biocompatible alternative for exfoliation. To develop superior enzymatic skincare agents, our research focused on identifying papain isoenzymes that exhibit optimal activity across diverse skin types and pH conditions. Using NCBI BLAST, genes with 50%-80% sequence similarity to papain were selected as candidate isoenzymes. Structural modeling of these candidates was then performed via AlphaFold to evaluate and prioritize enzymes with favorable active site characteristics. Ultimately, five cysteine proteases were chosen for their promising suitability in skincare applications: those derived from Abrus precatorius, Actinidia eriantha, Cicer arietinum, Cajanus cajan, and papain itself. These enzymes are expected to act synergistically to enhance the efficacy, stability, and safety of enzymatic skincare products. [Wiki](https://2025.igem.wiki/ucs-x) | [Official Page](https://teams.igem.org/5764)https://static.igem.org/peertube/streaming-playlists/hls/929fd4fb-caf5-418e-8766-21b9fb676b88/f8c8807b-7e26-42f5-b0d7-4a6b65f56966-master.m3u8https://video.igem.org/videos/embed/j78UEsf3mPPNA4k44hM2aS1180182025-08-11T07:32:53.401ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oJXqgpJTbsss9gzr1crSrxhttps://video.igem.org/lazy-static/thumbnails/7617d2b4-f184-4721-b8fc-c1d5ec5be807.jpgHUST-UEVE-UPSaclay: Smart Soil System: Bacteria Armies Fix Nitrogen & Kill Pests (2025) - Project...**Title:** Smart Soil System: Bacteria Armies Fix Nitrogen & Kill Pests **Description:** One gram of soil contains three thousand unseen marauders. With probing spears they rend the roots, draining water and nutrients to the last drop. In the soil, microorganisms stealthily tear up the ‘invitation’ legumes send to rhizobia, while nematodes pierce crop roots. Can we build a smart soil system to address these issues? [Official Page](https://teams.igem.org/5730)https://static.igem.org/peertube/streaming-playlists/hls/b828710f-b72e-4f46-a581-c6c4c75cc229/1e260c44-0869-4a1a-9efb-dbb3a38ab453-master.m3u8https://video.igem.org/videos/embed/oJXqgpJTbsss9gzr1crSrx1190722025-08-11T07:58:43.935ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wqFBnCqDKJb889TyR2mgSihttps://video.igem.org/lazy-static/thumbnails/03727ae5-731c-4cc8-8f2a-50763926d345.jpgSubCat-Shanghai: New Probiotic Therapy for Parkinson's Disease (2025) - Project Promotion [English]**Title:** New Probiotic Therapy for Parkinson's Disease **Description:** Novel Probiotic Therapies for Parkinson's Disease Parkinson's disease is a chronic disease that causes dysfunction of extrapyramidal neurons in the central nervous system, leading to symptoms such as motor delay. L-DOPA tablets are the mainstay of Parkinson's disease treatment. They can cross the blood-brain barrier and enter the central nervous system, where they exert their pharmacological effects after activation by dopa decarboxylase. Currently, L-DOPA is synthesized primarily through chemical synthesis, plant extraction, and enzymatic methods. Microbial synthesis, as an environmentally friendly, simple, and efficient novel synthetic pathway, is gaining increasing attention. Therefore, identifying more efficient key enzyme genes (such as tyrA) and enhancing tyrA gene expression are crucial for furthering the industrial application of biosynthesis. This study, by overexpressing an optimized L-DOPA production pathway in probiotics and combining their inherent probiotic properties, will facilitate the development of novel therapeutics targeting host-gut microbial drug metabolism and other novel health interventions. [Wiki](https://2025.igem.wiki/subcat-shanghai) | [Official Page](https://teams.igem.org/5740)https://static.igem.org/peertube/streaming-playlists/hls/f6646bb5-398b-4622-bacd-c9f6e2d235d1/add235ec-0118-44c2-bb4b-9e71da6ef777-master.m3u8https://video.igem.org/videos/embed/wqFBnCqDKJb889TyR2mgSi1180252025-08-11T09:08:06.929ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1E17wq3s6mZpjEz1B23C5uhttps://video.igem.org/lazy-static/thumbnails/422415f7-b9a5-4620-95b0-2bb0839eec62.jpgGHCIS: AHigh-YieldPlectasinYeastCellFactory:ConstructingEfficient Plectasin-Prod... (2025) - Proj...**Title:** AHigh-YieldPlectasinYeastCellFactory:ConstructingEfficient Plectasin-ProducingPichiapastorisviaRegulatoryElementEngineering **Description:** Antimicrobial peptides (AMPs) are defensive small peptides produced by organisms in response to pathogenic bacteria. They have a broad spectrum of antimicrobial activity, small molecular size, low propensity to induce resistance, as well as good thermal stability and water solubility. These features make AMPs one of the most promising alternatives to antibiotics. Plectasin is a fungal antimicrobial peptide that can effectively inhibit the growth and reproduction of Gram-positive pathogenic bacteria and is widely used in the development of feed additives. Currently, AMPs are mainly obtained through isolation, purification, or chemical synthesis, but these methods suffer from low yield and high cost. Producing AMPs using genetically engineered microorganisms can address these limitations to some extent, as this method can generate target-specific AMPs with the potential for increased yield through technological improvements, lower costs, and broader applications, making it an ideal approach for AMP production. Pichia pastori is considered a safe model microorganism, with high safety, simple and economical culture conditions, and efficient protein secretion capability, offering more advantages compared to bacterial expression systems. In this study, the Plectasin gene is integrated into the *Pichia pastoris* genome, and by screening strong promoters and signal peptides, we construct a high-yield Plectasin-producing P. pastoris strain to promote the commercial production of Plectasin. [Wiki](https://2025.igem.wiki/ghcis) | [Official Page](https://teams.igem.org/5967)https://static.igem.org/peertube/streaming-playlists/hls/054e5524-3afa-45c5-8db2-0061fddfc8d4/b0973f07-2609-4b28-b13d-75c2d9028065-master.m3u8https://video.igem.org/videos/embed/1E17wq3s6mZpjEz1B23C5u1060212025-08-11T09:23:07.080ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ngdbdoe8vdWxT2xL6HHYYAhttps://video.igem.org/lazy-static/thumbnails/efdc229f-6512-4b86-918e-b04238266a36.jpgShanghai-city: PrenatalEB-Detect: Detection platform based on CRISPR-Cas12a (2025) - Project Prom...**Title:** PrenatalEB-Detect: Detection platform based on CRISPR-Cas12a **Description:** This project targets two high-frequency pathogenic gene mutations in DEB (COL7A1: c.520G>A and c.6745C>T) as detection targets, and has designed an in vitro detection platform—PrenatalEB-Detect—combining isothermal amplification (RPA) with the CRISPR-Cas12a recognition system. The platform uses artificially synthesized crRNA to specifically recognize pathogenic mutation sites, combined with fluorescent reporter probes to achieve visual signal output, enabling the detection of pathogenic mutations in trace amounts of fetal cell-free DNA (cfDNA). It offers advantages such as rapid testing, low cost, and no reliance on specialized instruments. The platform can be expanded to multi-site detection, supports risk grading output, and accommodates educational promotion and future productization needs. [Wiki](https://2025.igem.wiki/shanghai-city) | [Official Page](https://teams.igem.org/6004)https://static.igem.org/peertube/streaming-playlists/hls/ac2f927b-5cca-465b-bede-4c512900544a/77f95abf-9dd6-40eb-a0c7-b849383dc12f-master.m3u8https://video.igem.org/videos/embed/ngdbdoe8vdWxT2xL6HHYYA1220122025-08-11T09:50:03.955ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2YZQTYevoFXD8v5qCVCyWAhttps://video.igem.org/lazy-static/thumbnails/133cd481-992d-466e-893a-0ea43295aefe.jpgUCS-A: SlimSpore: Revolutionizing Fat Management (2025) - Project Promotion [English]**Title:** SlimSpore: Revolutionizing Fat Management **Description:** In the current era of rapid development in the fields of life sciences and the health industry, using Escherichia coli as the host organism, the production of sulfide oxidoreductase (SQR) and flavocytochrome C sulfide dehydrogenase (FCSD) can break down hydrogen sulfide (H2S) in the intestinal environment, thereby inhibiting the GLP-1 signaling pathway and achieving fat-reducing effects. This not only holds significant importance in basic scientific research, offering a new perspective on the relationship between gut microbiota and human health, but also possesses immense potential in industrial production and health industry applications, with the potential to make significant contributions to improving human health and quality of life. [Official Page](https://teams.igem.org/5765)https://static.igem.org/peertube/streaming-playlists/hls/100e6fd3-3a2e-4288-952c-f10b71694c4e/b1026b68-2cad-4650-ab5c-c2bdc17b5b04-master.m3u8https://video.igem.org/videos/embed/2YZQTYevoFXD8v5qCVCyWA113092025-08-11T09:58:56.509ZYES2025 Project PromotionsNOhttps://video.igem.org/w/d4C7bRS5gWK5Up3PtF8Pgehttps://video.igem.org/lazy-static/thumbnails/c475f368-cf06-45bc-8f7c-fe75f44b735e.jpgSubCat-HS: Helicobacter pylori Nanobody Therapy (2025) - Project Promotion [English]**Title:** Helicobacter pylori Nanobody Therapy **Description:** Helicobacter pylori (H. pylori) infection can lead to severe health complications. Current treatments primarily rely on antibiotics, but increasing resistance due to overuse has resulted in frequent therapeutic failures, potentially progressing to more serious conditions. Urease is a critical factor for H. pylori colonization and pathogenicity in the stomach, making its inhibition essential for reducing infection risks. This study focuses on constructing a gene expression system for recombinant nanobodies targeting the H. pylori urease subunit (UreB) and exploring their production in food-grade probiotic bacteria. By delivering these nanobodies via live probiotics, the approach aims to achieve direct and precise prevention and control of H. pylori infection. The research establishes a solid foundation for developing immune-based therapies against H. pylori, demonstrating significant innovation and application potential. [Wiki](https://2025.igem.wiki/subcat-hs) | [Official Page](https://teams.igem.org/5735)https://static.igem.org/peertube/streaming-playlists/hls/61af2592-0e04-4d50-804f-5903702eeb37/9f460c11-0e8b-41ff-bbf6-9b1d8ff00369-master.m3u8https://video.igem.org/videos/embed/d4C7bRS5gWK5Up3PtF8Pge1100142025-08-11T10:05:47.191ZYES2025 Project PromotionsNOhttps://video.igem.org/w/45zpAjQapNVZMVc1GsXqDthttps://video.igem.org/lazy-static/thumbnails/ffe86d23-7598-4883-aa84-cfb3ec1da0ac.jpgSubCat-Greatbay: 4-in-1 Dual-signal Amplification Nanoflower – Smartphone-powere... (2025) - Proj...**Title:** 4-in-1 Dual-signal Amplification Nanoflower – Smartphone-powered Ultra-sensitive Detection of Bacteria **Description:** We plan to develop a special "nanoflower" capable of rapidly and accurately detecting bacteria. This nanoflower has two key functions: first, it uses "phage tail fiber proteins" to precisely bind to bacteria; second, its interior contains peroxidase, enabling a colorimetric reaction. The large specific surface area of the nanoflower and the gold-platinum nanoparticles amplifies the signal, making the detection result more pronounced. Afterwards, a dedicated mobile app can scan the colorimetric result and analyze the RGB values to directly determine the presence of bacteria. [Wiki](https://2025.igem.wiki/subcat-greatbay) | [Official Page](https://teams.igem.org/5736)https://static.igem.org/peertube/streaming-playlists/hls/18eefa8c-5ed3-49f9-854c-378426ca5d95/87d8f887-52b8-4ac3-a1b8-ca1d96fb8818-master.m3u8https://video.igem.org/videos/embed/45zpAjQapNVZMVc1GsXqDt1070152025-08-11T10:27:55.050ZYES2025 Project PromotionsNOhttps://video.igem.org/w/iY9GPiezX1XnAgMhMzKHyshttps://video.igem.org/lazy-static/thumbnails/6d89a999-a73e-4640-b684-7c0e176e548a.jpgBeijing-HS: Construction and Application of Red Light Induced Nanobody Productio... (2025) - Proj...**Title:** Construction and Application of Red Light Induced Nanobody Production System **Description:** Cancer has emerged as a global public health challenge. In recent years, nanobodies have garnered significant attention in anti-tumor therapy due to their high affinity, low immunogenicity, and excellent tissue penetration. While commonly used production systems include mammalian cell and yeast expression platforms, they remain costly and intricate. Consequently, developing a safe, controllable, and efficient antibody production system is crucial for advancing tumor therapeutics. This study aims to develop an efficient and controllable nanobody production platform utilizing a red light-induced gene expression system in Escherichia coli. By integrating red light-mediated gene regulation technology with the robust protein production capacity of E. coli, we will achieve precise control over nanobody expression. This system will enable real-time regulation via red light signals, reducing production-associated side effects and energy consumption, while significantly enhancing the efficiency and quality of nanobody production. [Wiki](https://2025.igem.wiki/beijing-hs) | [Official Page](https://teams.igem.org/5734)https://static.igem.org/peertube/streaming-playlists/hls/91825f48-2775-4912-9181-c42c6c820e86/052e1827-05d7-4a6a-a4e2-7bfc08dff2eb-master.m3u8https://video.igem.org/videos/embed/iY9GPiezX1XnAgMhMzKHys800232025-08-11T10:38:53.018ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cKdL8fAvWnmtCQSBoDAzAQhttps://video.igem.org/lazy-static/thumbnails/078d368b-d3c3-49b1-b6d3-45f88dcd9202.jpgSUIS-PINGHE: "Marine Soft Gold": Research on the Application of Mussel Adhesive ... (2025) - Proj...**Title:** "Marine Soft Gold": Research on the Application of Mussel Adhesive Proteins in Antibacterial Coatings for Medical Devices **Description:** Mussel foot proteins (Mfps) are a class of proteins secreted by mussel byssus, featuring exceptional underwater adhesion, waterproofness, toughness, and durability. They exhibit great application potential in fields such as biomedicine, cosmetics, and medical coatings. However, the current production of Mfps mainly relies on direct extraction from mussels, a process that is costly, inefficient, and unable to meet the demand for high yield and consistent quality. To overcome this bottleneck, the present study aims to explore the use of Escherichia coli as a biosynthetic platform for the efficient production of Mfps through a heterologous expression strategy. Furthermore, by applying sequence-based molecular design, we seek to construct functional fusion proteins with strong adhesiveness, enhanced antibacterial activity, and good biocompatibility for the preparation of antimicrobial coatings for medical devices. [Wiki](https://2025.igem.wiki/suis-pinghe) | [Official Page](https://teams.igem.org/5738)https://static.igem.org/peertube/streaming-playlists/hls/5f1d5f19-29e0-4549-ac76-2719c14a2da8/82ad5a22-91c9-4a62-be6e-99dcaf26305e-master.m3u8https://video.igem.org/videos/embed/cKdL8fAvWnmtCQSBoDAzAQ1200332025-08-11T10:50:11.413ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mcdxrRKUXkVeD1GEEePQx9https://video.igem.org/lazy-static/thumbnails/81fbf66e-7ec8-4841-8adc-26433f8f9d19.jpgXJTLU-AI-China: Plaszyme：An intelligent platform for plastic-degradation enzyme ... (2025) - Proj...**Title:** Plaszyme：An intelligent platform for plastic-degradation enzyme study **Description:** Plaszyme integrates synthetic biology and AI to help reveal hidden correlations between enzymes and their plastic-degrading potential, enabling rapid identification of potential plastic-degrading enzymes from sequences. Based on the project concept, the team has also established the public database for plastic degradation, PlaszymeDB, and the alliance for plastic pollution data collection and sharing, striving to popularize their initiatives from the local community to the global scale. [Wiki](https://2025.igem.wiki/xjtlu-ai-china) | [Official Page](https://teams.igem.org/5580)https://static.igem.org/peertube/streaming-playlists/hls/a387af1e-5073-4706-9c95-f7a0f788ca36/142ce9e6-5197-4d25-97dd-bcf3987f9afe-master.m3u8https://video.igem.org/videos/embed/mcdxrRKUXkVeD1GEEePQx91215512025-08-11T11:18:43.182ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2ni6FmT52ecVxphMtHj2oBhttps://video.igem.org/lazy-static/thumbnails/eb9add84-1093-4d73-ba6c-e465d65af818.jpgSHSID: Construction of an E. coli engineered strain capable of monitoring and re... (2025) - Proj...**Title:** Construction of an E. coli engineered strain capable of monitoring and reducing hexavalent chromium **Description:** We aim to design a biosensor for detecting hexavalent chromium (Cr) using synthetic biology techniques, while utilizing soluble flavoprotein ChrR and YieF to achieve effective reduction of hexavalent Cr in Escherichia coli BL21(DE3); A biosensor based on the pigment protein AmilCP is used to detect the presence of hexavalent Cr, and the concentration of reduced hexavalent Cr is determined using the diphenylcarbazide spectrophotometric method; By employing a safe microbial method, this approach achieves a more efficient, convenient, and environmentally friendly mitigation of hexavalent Cr toxicity. [Wiki](https://2025.igem.wiki/shsid) | [Official Page](https://teams.igem.org/5737)https://static.igem.org/peertube/streaming-playlists/hls/0b124b77-56c1-4080-970f-9e81cc7a42c3/4c2a2d93-6630-45fd-8f5b-cc76fd43f60d-master.m3u8https://video.igem.org/videos/embed/2ni6FmT52ecVxphMtHj2oB1000372025-08-11T11:23:04.332ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9KhQyVK3vP45Yh6xyscqVGhttps://video.igem.org/lazy-static/thumbnails/80798cef-eca8-46b1-b0b9-1ac2a3c17b9f.jpgLeiden: Splintein - A new technique for Post Translational Modifications (2025) - Project Promoti...**Title:** Splintein - A new technique for Post Translational Modifications **Description:** Discover how Splintein is transforming the future of biotechnology! Our innovative system uses genetically engineered yeast to accelerate, cheapen and simplify the development of post-translational modifications (PTM) in order to be used in research. And all of this without the use of animals. PTMs are essential for the advancement of different scientific fields, such as diagnostics, therapeutics and fundamental research, offering unprecedented precision and versatility. Join us as we pave the way for new scientific breakthroughs - PTMs made easy! [Wiki](https://2025.igem.wiki/leiden) | [Official Page](https://teams.igem.org/5591)https://static.igem.org/peertube/streaming-playlists/hls/46d477c1-1c86-4fe8-8522-bf70e7c91d22/96108187-8de2-4c29-b243-697f05437b2d-master.m3u8https://video.igem.org/videos/embed/9KhQyVK3vP45Yh6xyscqVG1220392025-08-11T12:49:02.314ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bnP2Rza5a2Y86LCwLFCiCNhttps://video.igem.org/lazy-static/thumbnails/e9c06e50-9707-4d81-8371-c638fdfc5c11.jpgIOANNINA: AMADRYADS: A (CRISPR-Cas13d) Mediated Antifungal treatment, Deploying ... (2025) - Proj...**Title:** AMADRYADS: A (CRISPR-Cas13d) Mediated Antifungal treatment, Deploying a Riboswitch, Yielding Apoptotic Defence in a Systemic way **Description:** AMADRYADS. Faced with the urgent threat posed by Ceratocystis platani to native and urban plane tree populations, we, iGEM IOANNINA 2025, propose a novel biocontrol strategy rooted in the principles of Synthetic Biology. Building upon current scientific insights into the pathogenesis and biology of the fungus, we have designed a targeted, environmentally friendly, safe system to selectively impair the pathogen’s viability, while safeguarding the host plant and its surrounding microbiome. Our system consists of two major components: a biodegradable nanocarrier and a functional plasmid construct delivered into the fungal cytoplasm. Nanocarrier Design and Function. The nanocarrier is composed of biodegradable, biocompatible materials and is engineered for optimal penetration and transport through the plant vascular system. It is designed to selectively localise within the fungal cells, exploiting unique biochemical signatures of the fungal cell wall for targeted delivery. Once internalised, the nanocarrier disintegrates, releasing the plasmid into the cytoplasm of C. platani.The CRISPR-Cas13d-Based Antifungal Plasmid. The core of our biocontrol mechanism is a plasmid encoding a synthetic CRISPR-Cas13d RNA editing system tailored for fungal transcriptome targeting. [Wiki](https://2025.igem.wiki/ioannina) | [Official Page](https://teams.igem.org/5684)https://static.igem.org/peertube/streaming-playlists/hls/5406fd81-667a-4f02-a671-299a755499ca/9d2a86dc-e384-4ec0-a299-2d9f4f4c3c05-master.m3u8https://video.igem.org/videos/embed/bnP2Rza5a2Y86LCwLFCiCN1210662025-08-11T14:02:03.060ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9AanxDkGfi93emBWak6gj8https://video.igem.org/lazy-static/thumbnails/a7937d76-d12a-47ee-b95f-4af1197c9981.jpgDTU-Denmark: NomNomNylon - upcycling of textile waste into dyes (2025) - Project Promotion [English]**Title:** NomNomNylon - upcycling of textile waste into dyes **Description:** For this year's iGEM project, the DTU BioBuilders are expressing their project in song! Textile waste consists of many intertwined natural and synthetic fibers. The DTU BioBuilders are degrading the Nylon present in textile waste, using engineered and genome mined nylonases. Using P. putida, they are upcycling the carbon and nitrogen content from nylon, producing the valuable dye indigoidine. [Wiki](https://2025.igem.wiki/dtu-denmark) | [Official Page](https://teams.igem.org/5568)https://static.igem.org/peertube/streaming-playlists/hls/458e2c3f-0a6a-4c35-b037-f6909f6b65cf/fb1a508f-077c-4169-a557-72b020636b2f-master.m3u8https://video.igem.org/videos/embed/9AanxDkGfi93emBWak6gj812301942025-08-11T14:35:26.299ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vFjq7hKuy6NDJwUrMNZgEUhttps://video.igem.org/lazy-static/thumbnails/b9aed59b-219a-4c18-8aba-d7d354fc6f18.jpgHZAU-China: HemorrEaser: A Synthetic Biology Solution for Hemorrhoids (2025) - Project Promotion ...**Title:** HemorrEaser: A Synthetic Biology Solution for Hemorrhoids **Description:** Hemorrhoids are a common chronic condition worldwide, especially in China. To address this, we designed an innovative therapy using engineered bacteria. Our project HemorrEaser offers a precise, comprehensive, and sustainable solution for hemorrhoid treatment. [Wiki](https://2025.igem.wiki/hzau-china) | [Official Page](https://teams.igem.org/5918)https://static.igem.org/peertube/streaming-playlists/hls/f0566091-d0a6-4c99-83ce-a177cdd6fb14/c6f990ab-9174-492e-9fda-b6442010d544-master.m3u8https://video.igem.org/videos/embed/vFjq7hKuy6NDJwUrMNZgEU1180622025-08-11T14:43:05.953ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7wbWn23Syaj5pkuJEn6iyfhttps://video.igem.org/lazy-static/thumbnails/0efa82ad-be39-4210-921e-eb3b42d6f660.jpgJLU-CP: Cosmic Slumbers: Engineering Probiotics for a Good Night's Sleep in Space (2025) - Projec...**Title:** Cosmic Slumbers: Engineering Probiotics for a Good Night's Sleep in Space **Description:** For astronauts orbiting Earth, a normal day-night cycle doesn't exist. This leads to sleep problems that can impact their health and missions. Current solutions like melatonin pills are often imprecise. What if we could create a living medicine that works in sync with an astronaut's needs? Follow our animated koala astronaut as we explain our iGEM project: a genetically engineered probiotic designed to be a personal, on-demand melatonin producer. By creating a controllable genetic "switch," our system can be triggered to help restore a natural sleep rhythm, ensuring our space explorers are well-rested for the challenges ahead. [Wiki](https://2025.igem.wiki/jlu-cp) | [Official Page](https://teams.igem.org/5567)https://static.igem.org/peertube/streaming-playlists/hls/34cde2a9-8e48-4299-8579-b2b1c78d370a/9268aa12-cb6e-4d74-9e18-e6c9486275e8-master.m3u8https://video.igem.org/videos/embed/7wbWn23Syaj5pkuJEn6iyf1150322025-08-11T14:49:18.520ZYES2025 Project PromotionsNOhttps://video.igem.org/w/jTqYHUH2KM6B1VS3Lvp2fBhttps://video.igem.org/lazy-static/thumbnails/a79aaf15-24b4-4ea6-b35c-69dce3ceda23.jpgBielefeld-CeBiTec: Cellective - Two Switches, One Target (2025) - Project Promotion [English]**Title:** Cellective - Two Switches, One Target **Description:** We are developing a novel dual-safety riboswitch system to improve triple negative breast cancer (TNBC) therapy by increasing specificity and reducing side effects. Riboswitches are RNA-based elements that regulate gene expression in response to defined molecular inputs. Our system uses two independent riboswitches: one responds to general cancer-associated mRNA, the other switch to breast cancer-specific microRNAs. The therapeutic effect is only triggered when both riboswitches are activated. Each riboswitch contains a sensor domain that binds its target RNA and a structural domain that controls translation. The cooperative action of both ensures a high level of precision. Upon activation, the system expresses a modified human Gasdermin D. Once cleaved by the protease encoded by the first riboswitch, Gasdermin D oligomerizes and forms membrane pores which leads to targeted cell death. This approach restricts cytotoxicity to cancer cells and can be reprogrammed for other cancers by exchanging recognition elements. [Wiki](https://2025.igem.wiki/bielefeld-cebitec) | [Official Page](https://teams.igem.org/5833)https://static.igem.org/peertube/streaming-playlists/hls/98f2d245-90a1-4977-8bba-fbda9033eedb/9e237f44-a751-4221-8628-957ffbbda73d-master.m3u8https://video.igem.org/videos/embed/jTqYHUH2KM6B1VS3Lvp2fB1230862025-08-11T14:54:18.542ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vpdGkEzxqF7DsiC1p44xVXhttps://video.igem.org/lazy-static/thumbnails/f0e24cab-5530-4fa6-916a-6f2d664e6d79.jpgOutaouais: OHO (2025) - Project Promotion [English]**Title:** OHO **Description:** Promotional video of the iGEM Outaouais Team 2025 project - One Health Outaouais - from Gatineau, Qc, Canada. [Wiki](https://2025.igem.wiki/outaouais) | [Official Page](https://teams.igem.org/5663)https://static.igem.org/peertube/streaming-playlists/hls/ee16f3a4-95d2-4e9d-9c0c-6c49673fcd9d/e1e3aa5d-3064-4af7-838d-ae972c27ff18-master.m3u8https://video.igem.org/videos/embed/vpdGkEzxqF7DsiC1p44xVX1230112025-08-11T15:18:05.989ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eb59zpyxAhTUzy2AKNDb7Hhttps://video.igem.org/lazy-static/thumbnails/533f37b4-a655-4e03-8527-5effedba9dbf.jpgAFMU-China: SYNERGY: SynNotch-Engineered Macrophages for Enhanced HCC Therapy – ... (2025) - Proj...**Title:** SYNERGY: SynNotch-Engineered Macrophages for Enhanced HCC Therapy – A Universal Precision Immunotherapy **Description:** The AFMU-China team is dedicated to the development of innovative immunotherapy for liver cancer. The SYNERGY we have launched aims to integrate multiple immunotherapy strategies to address these issues and completely revolutionize the way we treat liver cancer. Through carefully designed functional components, we ensure that after SYNERGY enters the human body, it will only be activated in the liver , which greatly reduces the risk of off-target. The activated SYNERGY reprograms itself into a M1 polarization state with anti-tumor function, and at the same time can enhance its own phagocytic ability to tumor cells, synergistically killing liver cancer . [Wiki](https://2025.igem.wiki/afmu-china) | [Official Page](https://teams.igem.org/5968)https://static.igem.org/peertube/streaming-playlists/hls/6aaecbe6-cac2-425f-9f61-fa8862fea875/a414ddb7-51dd-4b1f-8c77-2d4623e06e6c-master.m3u8https://video.igem.org/videos/embed/eb59zpyxAhTUzy2AKNDb7H1180622025-08-11T15:43:27.960ZYES2025 Project PromotionsNOhttps://video.igem.org/w/jtreDNdA5EBf2X1Ra85A7ehttps://video.igem.org/lazy-static/thumbnails/b7569b17-539e-4ecb-856f-66cceae4e681.jpgHongKong-JSS: Remedix: A Synthetic Biology System for Detection and Degradation ... (2025) - Proj...**Title:** Remedix: A Synthetic Biology System for Detection and Degradation of Medical Waste **Description:** Antibiotic resistance is a major global health threat, worsened by excessive antibiotic use in humans and animals. In Hong Kong, large amounts of tetracyclines are still used in pig and chicken farms, with resistance rates in bacteria reaching over 70%. However, another key source of contamination comes from medical waste. Improper disposal, over-the-counter sales without prescriptions, and overprescription by doctors lead to antibiotic residues and resistant bacteria entering sewage systems. Current wastewater treatment methods rely mainly on physical or chemical processes, which are ineffective at removing or degrading antibiotics. To address this issue, we are engineering a synthetic biology system using E. coli to detect and degrade tetracycline in medical wastewater. The system has three main components. First, we characterize chromoproteins to select the most visible and reliable reporter and to validate our lab methods. Second, we build a biosensor using tetracycline- and salicylate-inducible promoters to control chromoprotein expression. When tetracycline is present, the promoters activate, producing a visible color change. Third, we include degradation enzymes such as TetX and NahG to break down the pollutants after detection. This system provides a low-cost, visible signal for antibiotic detection and an active cleanup solution. While antibiotic use in livestock is difficult to control due to lack of legal restrictions, medical waste can be more easily targeted. By focusing on this source, our project offers a practical tool that could be integrated into hospital wastewater systems or urban treatment plants. It aims to reduce the environmental impact of antibiotics, slow down the spread of resistant bacteria, and support better antimicrobial stewardship using synthetic biology. [Official Page](https://teams.igem.org/5760)https://static.igem.org/peertube/streaming-playlists/hls/95992128-4fd3-44a3-8da3-82d31b607a21/8fe7fa1f-2e36-403b-8bd3-f97cec5f3bbd-master.m3u8https://video.igem.org/videos/embed/jtreDNdA5EBf2X1Ra85A7e1210522025-08-11T15:49:25.594ZYES2025 Project PromotionsNOhttps://video.igem.org/w/79tNdH4iAoQKL1JsgTWqmphttps://video.igem.org/lazy-static/thumbnails/01e8696f-4fa4-44d8-b54f-4f78c9171038.jpgICJFLS: AramaWell (2025) - Project Promotion [English]**Title:** AramaWell **Description:** Mental illnesses have become a non-negligible issue in recent human society. Meanwhile, we found that a common chemical substance called "linalool" relieve people's stress by means of its unique molecular structure and pleasant odor. What's more, the effect comes in a mild way, not like most medicines. But the problem is, manufacturing this chemical is expensive. That is the reason why we dedicate to produce linalool by synthetic biology technology. Basically, we get microorganisms to do the job for us. Once the procedure is complete, the cost can be largely reduced. Enjoy the video. [Wiki](https://2025.igem.wiki/icjfls) | [Official Page](https://teams.igem.org/5654)https://static.igem.org/peertube/streaming-playlists/hls/31c5e99d-4e35-47a8-9edd-02a254aee27f/8b13a8bb-13e7-4eed-95a3-49b95eca97b1-master.m3u8https://video.igem.org/videos/embed/79tNdH4iAoQKL1JsgTWqmp1080132025-08-11T15:56:42.700ZYES2025 Project PromotionsNOhttps://video.igem.org/w/q5XHKenHwwnziTT2Uqgehghttps://video.igem.org/lazy-static/thumbnails/79dd27ae-5eda-4baf-9343-f6b740a57403.jpgBWYA: An Allergy-Free Hug (2025) - Project Promotion [English]**Title:** An Allergy-Free Hug **Description:** Every year, millions of cats lose their homes due to human allergies. The BWYA iGEM team has developed an RNA interference (RNAi)–based cat food solution to reduce the expression of the major cat allergen, Fel d 1 — enabling humans and cats to share allergy-free hugs again. Told from a cat’s perspective, this is a story of science and love coming together. [Official Page](https://teams.igem.org/5927)https://static.igem.org/peertube/streaming-playlists/hls/c30ca435-0842-4d91-8aaa-d295cc918b9b/254b769d-6b0a-4478-8897-65d667da1737-master.m3u8https://video.igem.org/videos/embed/q5XHKenHwwnziTT2Uqgehg1230182025-08-11T16:04:21.065ZYES2025 Project PromotionsNOhttps://video.igem.org/w/dedFm2CLo38xW91yDAfRDehttps://video.igem.org/lazy-static/thumbnails/e9938d59-8bef-43ff-8a0b-afbec782a877.jpgCUHK-Shenzhen: Glutamate Overexpression by E. coli Induces Tumor-Targeted Ferrop... (2025) - Proj...**Title:** Glutamate Overexpression by E. coli Induces Tumor-Targeted Ferroptosis (GOETF) **Description:** This video introduces the iGEM project from CUHK-Shenzhen: Glutamate Overexpression by E. coli Induces Tumor-Targeted Ferroptosis (GOETF), covering its research background, specific mechanisms, and anticipated positive impact on cancer treatment. [Wiki](https://2025.igem.wiki/cuhk-shenzhen) | [Official Page](https://teams.igem.org/5926)https://static.igem.org/peertube/streaming-playlists/hls/63062570-bbe7-4c8d-b472-516a73a456c3/62db275a-942d-479c-bfc7-1936e6838478-master.m3u8https://video.igem.org/videos/embed/dedFm2CLo38xW91yDAfRDe1180152025-08-11T16:25:49.644ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wftvibtmftx37Zu2XNpxovhttps://video.igem.org/lazy-static/thumbnails/fdeb83c9-4b79-4c1e-a022-957057e5c993.jpgVIT-Vellore: Ambergris: The Scent of the Future (2025) - Project Promotion [English]**Title:** Ambergris: The Scent of the Future **Description:** Ambergris, a rare waxy substance from sperm whales, is highly valued in luxury perfumery but fuels illegal poaching of this endangered species and black market trade of ambergris. Our team, Baleina, uses synthetic biology to create a sustainable alternative, reducing reliance on whale-derived products and protecting marine biodiversity, while inspiring future generations to harness synthetic biology for conservation. Instagram: https://www.instagram.com/igem_vit/ LinkedIn: https://www.linkedin.com/company/igem-vit-vellore-team/ [Wiki](https://2025.igem.wiki/vit-vellore) | [Official Page](https://teams.igem.org/5864)https://static.igem.org/peertube/streaming-playlists/hls/f4f785f0-b686-4f56-9a0c-11cd86f2458d/b26ffbde-7732-4f79-a8ef-203ed36ff684-master.m3u8https://video.igem.org/videos/embed/wftvibtmftx37Zu2XNpxov1220292025-08-11T16:42:12.561ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mTSJ4eEocevnevcDr9cvWChttps://video.igem.org/lazy-static/thumbnails/2a2e366b-30df-4b3a-b8f7-0edbe2e4236a.jpgREC-CHENNAI: SaltEnPep: A pinch of salt, a plate of flavour (2025) - Project Promotion [English]**Title:** SaltEnPep: A pinch of salt, a plate of flavour **Description:** Salt is essential for flavour but excessive intake poses serious health risks, often exceeding WHO recommendations. iGEM TEAM REC-CHENNAI 2025 presents SaltEnPep – Saltiness Enhancing Peptides, designed to deliver the same salty taste with significantly reduced sodium. By engineering E. coli to enhance salt taste receptor activity, and producing high-purity peptides through chitin affinity chromatography, we aim to make low-sodium diets both healthier and more palatable. [Wiki](https://2025.igem.wiki/rec-chennai) | [Official Page](https://teams.igem.org/5839)https://static.igem.org/peertube/streaming-playlists/hls/a934f746-be23-4c65-95dd-340ae80e640c/9111cadb-d139-41ad-9445-05d5dec78922-master.m3u8https://video.igem.org/videos/embed/mTSJ4eEocevnevcDr9cvWC10801502025-08-11T17:53:02.915ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sG8ctxHXpePbrTgK5Vzspbhttps://video.igem.org/lazy-static/thumbnails/842a2e57-64c2-4c01-8bf4-448079fe25ed.jpgLatvia-Riga: Caseinova (2025) - Project Promotion [English]**Title:** Caseinova **Description:** Caseinova is an innovative burn treatment approach that combines natural components - casein and propolis - with bacteriophage-loaded hydrogels. Together, they promote rapid healing and showcase a potential new strategy for targeted infection control. [Wiki](https://2025.igem.wiki/latvia-riga) | [Official Page](https://teams.igem.org/5728)https://static.igem.org/peertube/streaming-playlists/hls/d827cab2-a8fe-4d60-ac87-c611ae41dc20/1d6da458-70d7-4980-bb5a-3b18b3a8a52a-master.m3u8https://video.igem.org/videos/embed/sG8ctxHXpePbrTgK5Vzspb1060642025-08-11T20:26:49.406ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qbNpmAmYj5bLtY7S8MGasnhttps://video.igem.org/lazy-static/thumbnails/d2b536e6-bc9e-411f-84e4-2f79219fa966.jpgAalto-Helsinki: Have you heard about B12 deficiency? (2025) - Project Promotion [English]**Title:** Have you heard about B12 deficiency? **Description:** Vitamin B12 is essential for many vital functions, yet its deficiency often goes unnoticed. Aalto-Helsinki iGEM team is developing AbsorBuddy, a foundation for a new vitamin supplement designed to improve B12 absorption. [Wiki](https://2025.igem.wiki/aalto-helsinki) | [Official Page](https://teams.igem.org/5936)https://static.igem.org/peertube/streaming-playlists/hls/c3dd5cb9-57fa-48b3-ab06-1dc7dae3432d/28a3ce35-fbf5-4e95-936a-665cc964f95d-master.m3u8https://video.igem.org/videos/embed/qbNpmAmYj5bLtY7S8MGasn12202202025-08-11T20:59:32.949ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1ZnEhg8W74sgAvyNKtQ94Jhttps://video.igem.org/lazy-static/thumbnails/3e39b472-8c37-4319-bcd9-56c081bb3aef.jpgZJUT-China: ZJUT-china:PlasticSense Neo--Smart PET Detection-Degradation System (2025) - Project ...**Title:** ZJUT-china:PlasticSense Neo--Smart PET Detection-Degradation System **Description:** People are well aware of the harm of microplastics. However, due to their tiny and hard-to-detect nature, people are unable to confirm whether there is microplastic pollution around them and feel deeply worried. Our team has designed a detection system in the hope of achieving rapid detection of microplastics, thereby transforming this worry into the motivation to eliminate microplastics. At the same time, our team has also designed a PET degradation and engineered bacteria suicide system to complement it. [Wiki](https://2025.igem.wiki/zjut-china) | [Official Page](https://teams.igem.org/5945)https://static.igem.org/peertube/streaming-playlists/hls/0802be4b-bbf3-436e-858a-4a278bedd088/4e53d9c9-ad30-48e1-9685-8c36a85d9ded-master.m3u8https://video.igem.org/videos/embed/1ZnEhg8W74sgAvyNKtQ94J1200542025-08-11T22:13:46.078ZYES2025 Project PromotionsNOhttps://video.igem.org/w/prkrZNRUKjHBFjSk8NnoWghttps://video.igem.org/lazy-static/thumbnails/d0f2aaf5-d1b4-4509-9f16-65bd0894beda.jpgMcMaster-Canada: REACT - Renal Ease-of-use Assessment for Clinical Transplant (2025) - Project Pr...**Title:** REACT - Renal Ease-of-use Assessment for Clinical Transplant **Description:** Kidney transplant rejection affects up to 15% of recipients within the first three months, often without noticeable symptoms. REACT is a point-of-care screening device that detects early signs of rejection by combining rolling circle amplification with DNA aptaprimers to measure the urinary biomarkers CXCL-9 and NGAL with high sensitivity and specificity. REACT enables timely intervention, supports improved patient outcomes, and is designed to extend the functional lifespan of kidney grafts. [Wiki](https://2025.igem.wiki/mcmaster-canada) | [Official Page](https://teams.igem.org/5856)https://static.igem.org/peertube/streaming-playlists/hls/bdcbc4d1-6a21-4773-8f95-790827aea2ab/15b1f7fb-ba7a-4451-9988-1e8bf54f9063-master.m3u8https://video.igem.org/videos/embed/prkrZNRUKjHBFjSk8NnoWg950862025-08-11T22:17:31.137ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mth4Kb4ibuCRjseDpMJfq5https://video.igem.org/lazy-static/thumbnails/b357532c-6252-434d-9939-248948c19eef.jpgFHS-NB-ZJ-China: writing (2025)FHS-NB-ZJ-China: writing (2025)https://static.igem.org/peertube/streaming-playlists/hls/a5c5c14f-e6e5-41b5-9665-1492c866e6ec/60b58e0b-6f21-4f31-97a9-6fad3834cc1b-master.m3u8https://video.igem.org/videos/embed/mth4Kb4ibuCRjseDpMJfq54022025-08-12T00:42:53.152ZYES2025 TeamsNOhttps://video.igem.org/w/tSWeCH5ttnNVCJRDLETh5Uhttps://video.igem.org/lazy-static/thumbnails/b413115b-cad4-4465-9a2a-3d5347c59f9e.jpgJiashu-China: Mustronaut (2025) - Project Promotion [English]**Title:** Mustronaut **Description:** Commercial spaceflight is rapidly evolving from experimental trials to large-scale operations, with companies like SpaceX, Blue Origin, and Virgin Galactic—and China’s own emerging space sector—driving down launch costs and opening the door to space tourism, lunar bases, and Mars colonization. Yet long-duration missions pose serious health risks, particularly microgravity-induced muscle loss and mood disorders. We address this challenge by engineering E. coli Nissle 1917 with a de novo HMB biosynthesis pathway to combat sarcopenia and a serotonin pathway to support mental well-being, creating a dual-function probiotic to safeguard astronaut health and enable sustainable human presence in space. [Wiki](https://2025.igem.wiki/jiashu-china) | [Official Page](https://teams.igem.org/5983)https://static.igem.org/peertube/streaming-playlists/hls/e1c35b19-6edb-4a25-843e-0a136c8d60f4/691d25ea-580c-48f9-b430-0ed78ba7ebcc-master.m3u8https://video.igem.org/videos/embed/tSWeCH5ttnNVCJRDLETh5U1190342025-08-12T00:59:40.470ZYES2025 Project PromotionsNOhttps://video.igem.org/w/hbyj1g4h8WD3iCiHu5JwEwhttps://video.igem.org/lazy-static/thumbnails/a536760b-c839-4621-b8ad-86b44a101c52.jpgUSherbrooke: UNTITLED (2025) - Project Promotion [English]**Title:** Promotion_video **Description:** Promotion video of project from University of Sherbrooke Team [Wiki](https://2025.igem.wiki/usherbrooke) | [Official Page](https://teams.igem.org/5756)https://static.igem.org/peertube/streaming-playlists/hls/830b9179-ce6d-4e03-af90-61608ed8b002/5b9dc8c0-803a-47ee-8d28-00dc84609c03-master.m3u8https://video.igem.org/videos/embed/hbyj1g4h8WD3iCiHu5JwEw1210232025-08-12T01:23:59.716ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7zZsDR5DGjgBVUhf6wnQj5https://video.igem.org/lazy-static/thumbnails/e7a8414b-74bf-4053-9612-8d875be6b3f6.jpgYK Pao: Nicotinamide synthase gene-enables crop iron and zinc biofortification, ... (2025) - Proj...**Title:** Nicotinamide synthase gene-enables crop iron and zinc biofortification, helping to address the hidden hunger crisis **Description:** Iron (Fe) and zinc (Zn) are essential trace elements for human health. However, iron and zinc deficiency is widespread worldwide, affecting approximately 2 billion people, particularly infants, young children, and pregnant women. In recent years, genetic engineering efforts related to iron absorption and metabolism have successfully increased the iron content of edible crop parts. Nicotinamide synthase is a key enzyme in the synthesis of nicotinamide (NA) in plants. Nicotinamide is an important metal chelator that can form stable complexes with divalent metal ions such as iron (Fe) and zinc (Zn). This project intends to use software such as Pymol to predict the key amino acid sites at the C-terminus of the AtNAS1 protein that affect enzyme activity, and to mutate the key sites of the full-length protein. After purifying the AtNAS1 mutant protein through prokaryotic expression in Escherichia coli, the enzyme activity mechanics analysis will be performed. The point mutation combinations with stronger activity of the AtNAS1 full-length protein will be screened for the construction of Bacillus subtilis expression vectors. After tobacco cultivation in soil, the iron and zinc content in tobacco leaves and roots will be measured, providing new ideas and theoretical support for solving the "hidden hunger" problem of crop iron, zinc and other trace element deficiencies. [Wiki](https://2025.igem.wiki/yk-pao) | [Official Page](https://teams.igem.org/5769)https://static.igem.org/peertube/streaming-playlists/hls/3555c97c-d68f-4901-b94e-0432b3c72da0/abfc6eda-b46a-4838-a119-8aba2f9f724e-master.m3u8https://video.igem.org/videos/embed/7zZsDR5DGjgBVUhf6wnQj51180142025-08-12T02:45:57.468ZYES2025 Project PromotionsNOhttps://video.igem.org/w/niQgnV2yBuUAygVfrTTNDZhttps://video.igem.org/lazy-static/thumbnails/cd8cd568-9889-4de8-950b-61696b105ca7.jpgNKU-China: AD-TMA Brain-Gut Axis Engineered Yeast Therapy: Neuroinflammation Reg... (2025) - Proj...**Title:** AD-TMA Brain-Gut Axis Engineered Yeast Therapy: Neuroinflammation Regulation Based on TAAR5 Receptor **Description:** This project focuses on the treatment of Alzheimer's disease (AD) and innovatively develops engineered yeast that regulates butyric acid production via the brain-gut axis. The engineered yeast utilizes the TAAR5 receptor to specifically sense trimethylamine (TMA) in the gut and, in combination with ROS signals, precisely initiates butyric acid synthesis. Butyric acid, as a short-chain fatty acid, can be absorbed through the intestine, cross the blood-brain barrier via blood circulation, and directly act on the brain. It effectively inhibits neuroinflammation related to APOE4, offering new insights and potential solutions for AD treatment. [Official Page](https://teams.igem.org/5712)https://static.igem.org/peertube/streaming-playlists/hls/ac8d4ce6-c1d8-4685-af25-dd2a40b10cdb/b838af3c-2c30-4f1b-9299-512dfac7b0c8-master.m3u8https://video.igem.org/videos/embed/niQgnV2yBuUAygVfrTTNDZ1210202025-08-12T03:12:45.756ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oaogpiprELNYT63GmDdjKGhttps://video.igem.org/lazy-static/thumbnails/39ad1ad3-155e-48ff-8377-4856b1078472.jpgPeking: HpBuster (2025) - Project Promotion [English]**Title:** HpBuster **Description:** As the culprit of chronic gastric diseases, Helicobacter pylori (Hp) has infected over half of the global population. Characterized by oral transmission without early symptoms, biofilm-induced antibiotic resistance, and deep mucosal colonization that impedes drug delivery, Hp has emerged as an insidious global infectious pathogen. Our team integrates probiotic engineering with micromotor delivery: Genetically modified Saccharomyces boulardii expresses human adhesion protein C1ND to precisely target Hp surface antigen HopQ, while a chimeric GPCR senses the biomarker Nα-methylhistamine (NAMH) to trigger secretion of biofilm-degrading AiiA enzyme. Magnesium-based micromotors propel the encapsulating pH-responsive microgels through the gastric mucus barrier, releasing probiotics directly at infection sites. This antibiotic-free strategy synergistically enables targeted reaction, biofilm eradication, and long-term protection, offering Hp-infected patients a comfortable yet effective therapeutic alternative. [Wiki](https://2025.igem.wiki/peking) | [Official Page](https://teams.igem.org/5870)https://static.igem.org/peertube/streaming-playlists/hls/b3787751-0f6f-4b22-b16c-5e2c7464f61e/b469970e-0b98-497d-b00b-3086a74b7f24-master.m3u8https://video.igem.org/videos/embed/oaogpiprELNYT63GmDdjKG1210712025-08-12T03:50:18.740ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ayuTQk57nS3UX3fstMj5Wwhttps://video.igem.org/lazy-static/thumbnails/6c70e6d7-39d0-49e2-add5-51397670176a.jpgGYHS: TCsensor: Integrated Tetracycline Detection and Biosafety Control (2025) - Project Promotio...**Title:** TCsensor: Integrated Tetracycline Detection and Biosafety Control **Description:** Tetracycline antibiotics (TCs), among the most globally used antibiotics, persistently accumulate in environments (e.g., water, soil), threatening ecosystems and human health. Current detection methods face limitations in sensitivity, cost, and field applicability. We developed TCsensor, a detection platform for on-site TC monitoring. An engineered Escherichia coli (E. coli) biosensor uses a tetracycline-responsive tet promoter linked to a reporter gene, enabling visual, semi-quantitative detection directly in environmental samples. To ensure biosafety, TCsensor incorporates a robust triple-induction lysis system (temperature-sensitive, L-arabinose-inducible, and lactose-inducible), enabling precise engineered cell self-destruction upon application of specific external signals post-detection, thereby preventing environmental release. This integrated "detect-and-destroy" system offers a practical, field-deployable solution for environmental TC monitoring with minimized biosafety risks. [Wiki](https://2025.igem.wiki/gyhs) | [Official Page](https://teams.igem.org/6018)https://static.igem.org/peertube/streaming-playlists/hls/4d6bdadd-6841-41c7-a090-56358e28f8ea/e271d7dc-40e4-4066-a8d6-f3260654b158-master.m3u8https://video.igem.org/videos/embed/ayuTQk57nS3UX3fstMj5Ww1190192025-08-12T03:26:35.868ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uR55kmojVfKD9FuTbj1JVghttps://video.igem.org/lazy-static/thumbnails/1de24417-4f2f-4f4b-b1e3-300b465cf9e2.jpgOTIA-Hangzhou: Explore, Breakthrough, Go Forward: A New Chapter in Sugar Substit... (2025) - Proj...**Title:** Explore, Breakthrough, Go Forward: A New Chapter in Sugar Substitutes **Description:** The promotion video begins by focusing on the urgent need for healthier sugar substitutes at a time of growing concern about the health effects of conventional sugar.It then pans to the lab to show how our team uses synthetic biology technology to develop innovative, low-calorie, nature-inspired sweeteners, connecting scientific breakthroughs to the quest for better dietary choices. [Wiki](https://2025.igem.wiki/otia-hangzhou) | [Official Page](https://teams.igem.org/5725)https://static.igem.org/peertube/streaming-playlists/hls/e999d69d-b4ae-4e7f-b07f-98140badff19/0f8602b5-b09f-4642-af5f-5992e5eb9d65-master.m3u8https://video.igem.org/videos/embed/uR55kmojVfKD9FuTbj1JVg119092025-08-12T04:19:35.214ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9ygx1DFKdcGwGqzjAY8bbshttps://video.igem.org/lazy-static/thumbnails/aaf87ae6-c149-4e46-958a-a22aaf5b0122.jpgWaterloo: HydroGuard (2025) - Project Promotion [English]**Title:** HydroGuard **Description:** HydroGuard is a catheter coating made from a gelatin methacrylate hydrogel, designed to combat catheter-associated urinary tract infections (CAUTIs), one of the most common hospital-acquired infections (CDC, 2024). Current treatments rely on antibiotics or catheter replacement, which can drive resistance, risk re-infection, and cause discomfort. Our hydrogel degrades in response to gelatinase (GelE) secreted by E. faecalis, triggering the release of a bacteriophage cocktail to penetrate and stop biofilm formation. Combining biocompatibility, targeted activation, and non-antibiotic action, HydroGuard offers a responsive, low-risk alternative to current CAUTI treatments. [Wiki](https://2025.igem.wiki/waterloo) | [Official Page](https://teams.igem.org/5572)https://static.igem.org/peertube/streaming-playlists/hls/454a7bc6-ec8f-4105-beb1-315443df129e/e21d70b1-50d1-43fa-a1f4-bf1dada22147-master.m3u8https://video.igem.org/videos/embed/9ygx1DFKdcGwGqzjAY8bbs1230222025-08-12T04:23:48.642ZYES2025 Project PromotionsNOhttps://video.igem.org/w/q23vg3d9ZhaoPGMz81hpU8https://video.igem.org/lazy-static/thumbnails/fe2b931c-973c-4426-be41-721cc5cb6a61.jpgXJTLU-CHINA: O! Super Carpet: Using Biofilm to Capture Ulva Spores (2025) - Project Promotion [En...**Title:** O! Super Carpet: Using Biofilm to Capture Ulva Spores **Description:** Our team is committed to solving the annual outbreak of Ulva Prolifera in Qingdao. Spore propagation is a common way for Ulva to reproduce. Due to its small size and the characteristic of being easy to spread rapidly in water, the outbreak of Ulva is usually uncontrollable. The current common governance method is only physical salvage, which is not only extremely inefficient, costly and labor-intensive, but also unable to capture tiny propagules such as spores, which will trigger a new round of outbreak of Ulva. In order to solve this problem more effectively and sustainably, our project will focus on addressing one of the roots of the repeated outbreak of Ulva: spores. We aim to design a strain of Escherichia coli to enhance the viscosity of the biofilm and use arginine short peptides to assist in spore sedimentation, so as to curb the spread of green tides from the source. To ensure biosafety, we introduce a light-controlled suicide system and develop a special spore filter based on 3D printing, optimize the fluid channel and carrier structure, achieve efficient capture of spores, and create a green and safe solution. [Wiki](https://2025.igem.wiki/xjtlu-china) | [Official Page](https://teams.igem.org/5578)https://static.igem.org/peertube/streaming-playlists/hls/c2809d73-8cd0-4b09-8bf2-e3ab45e9e8ab/2a563c64-acce-4212-b69d-03c69d3b950c-master.m3u8https://video.igem.org/videos/embed/q23vg3d9ZhaoPGMz81hpU81200252025-08-12T04:45:29.448ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7yPQWwRrifX5uk8oDSoPZMhttps://video.igem.org/lazy-static/thumbnails/07d930db-8f73-413e-9a70-24e455fb9db3.jpgBoston-BOSLab: BloomBusters: Early Detection of Toxin Production in Cyanobacteria (2025) - Projec...**Title:** BloomBusters: Early Detection of Toxin Production in Cyanobacteria **Description:** Making our waters safer through revolutionized toxin detection. [Wiki](https://2025.igem.wiki/boston-boslab) | [Official Page](https://teams.igem.org/5696)https://static.igem.org/peertube/streaming-playlists/hls/352c1e0d-16ea-44e6-a747-52a2ee072963/c56eaf00-6b86-4d18-9031-403440ab1734-master.m3u8https://video.igem.org/videos/embed/7yPQWwRrifX5uk8oDSoPZM1195442025-08-12T05:26:01.180ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3fG3oFekaXTQWPavXP8WT6https://video.igem.org/lazy-static/thumbnails/98805c21-54c1-43e9-b0ea-6e0f4cbd3d31.jpgUOttawa: ArboGuard - uOttawa (2025) - Project Promotion [English]**Title:** ArboGuard - uOttawa **Description:** Our project aims to revolutionize mosquito protection with a long-lasting, eco-friendly topical solution that works with the skin’s natural bacteria to repel mosquitoes for up to 12 days. By delivering targeted instructions to commensal microbes, the formulation enables them to produce mosquito-repelling compounds, creating a durable, sweat- and water-resistant barrier. This user-friendly solution provides convenient, extended protection addressing the urgent global health need for effective mosquito-borne disease prevention. Designed with safety, reversibility, and environmental sustainability in mind, the technology ensures temporary, non-invasive changes to the skin microbiome without harming beneficial insects or the ecosystem. By offering a practical alternative to conventional repellents, our solution reduces the burden of frequent reapplications, making it accessible for both recreational users and vulnerable communities worldwide. With ARBOGuard, we’re envisioning a future where communities worldwide are protected from arthropod-borne diseases through safe, sustainable, and equitable solutions. [Wiki](https://2025.igem.wiki/uottawa) | [Official Page](https://teams.igem.org/5707)https://static.igem.org/peertube/streaming-playlists/hls/123f5dcb-221f-4576-bb3b-789167869a53/f779ab7a-59d7-4bc7-8e4c-2edab410bf60-master.m3u8https://video.igem.org/videos/embed/3fG3oFekaXTQWPavXP8WT61180422025-08-12T05:31:00.070ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gmoWPLQJWpvhhpeEh7b4J7https://video.igem.org/lazy-static/thumbnails/5da86b97-b6e3-43ab-9bb1-1c069532048b.jpgWellington Shanghai: Barnacure (2025) - Project Promotion [English]**Title:** Barnacure **Description:** An introduction to Wellington College International School's 2025iGEM team project [Wiki](https://2025.igem.wiki/wellington-shanghai) | [Official Page](https://teams.igem.org/5682)https://static.igem.org/peertube/streaming-playlists/hls/7c521886-98f8-4c98-b4ae-3ab0962443e6/27ca57e2-8b34-4f54-9535-c0eb7d6bbedb-master.m3u8https://video.igem.org/videos/embed/gmoWPLQJWpvhhpeEh7b4J71220362025-08-12T05:37:20.506ZYES2025 Project PromotionsNOhttps://video.igem.org/w/hJzwmvVtvu6XVG8n1SuCbMhttps://video.igem.org/lazy-static/thumbnails/f99e8d7e-e162-4abb-86d3-305370c50b9a.jpgRains-ECO: Plant wax: A regulatory symphony on the synthesis pathway (2025) - Project Promotion [...**Title:** Plant wax: A regulatory symphony on the synthesis pathway **Description:** Our project is to verify the effect of the hy5-cer1 module in tobacco on wax synthesis, identify light as a key regulatory factor in this pathway, and then modify the plant body by adjusting the light intensity to affect the hy5-cer1 pathway, thereby improving wax synthesis in the plant and transforming it into a high wax plant. This not only enhances plant resistance, but also provides abundant raw materials for wax extraction in vitro. [Official Page](https://teams.igem.org/6002)https://static.igem.org/peertube/streaming-playlists/hls/87841dcb-e07e-457e-8b6c-6e3ab3965fc1/eb0e8bd2-abea-43c1-a03d-d03c398a4958-master.m3u8https://video.igem.org/videos/embed/hJzwmvVtvu6XVG8n1SuCbM1210132025-08-12T05:47:12.507ZYES2025 Project PromotionsNOhttps://video.igem.org/w/szW91Q4uFWGSScLLBdqo2Qhttps://video.igem.org/lazy-static/thumbnails/375adb9b-39bd-43fc-9948-0c73afbd7de0.jpgKhanLab-BayArea: ROCK THE PLASTICS (2025) - Project Promotion [English]**Title:** ROCK THE PLASTICS **Description:** Introducing this year's iGEM project: Rock the Plastics, where we use synthetic biology to capture microplastics and turn them into a reusable material. These small plastic bits enter the environment from decomposing plastics in landfills and oceans, and can be found in human bloodstreams, brains and the food chain, where they are known to cause harm to metabolic, immune, and reproductive functions. At the same time, the U.S. Geological Survey reports that 1 billion tons of limestone are quarried yearly in the United States alone. Our iGEM team tackles both problems by engineering E. coli to co-express plastic-binding curli fibers and a biomineralization pathway (MICP) in order to capture microplastics in in situ limestone formations. The resulting product can be utilized to immobilize harmful microplastics and replace non-renewable resources like sand for construction and backfilling projects. [Wiki](https://2025.igem.wiki/khanlab-bayarea) | [Official Page](https://teams.igem.org/5761)https://static.igem.org/peertube/streaming-playlists/hls/d74a836e-a344-4f6c-9165-adb488b12ee2/e28f32ad-3e91-4bf3-9904-c65da2c5bf5c-master.m3u8https://video.igem.org/videos/embed/szW91Q4uFWGSScLLBdqo2Q1215752025-08-12T05:54:24.624ZYES2025 Project PromotionsNOhttps://video.igem.org/w/xdGHFGJDMHyvcuqVStfRrxhttps://video.igem.org/lazy-static/thumbnails/2bbcc76a-70e4-410a-9dd6-052adff95fc6.jpgShanghai-HS: Dairy products with no burden (2025) - Project Promotion [English]**Title:** Dairy products with no burden **Description:** Globally, 70% of adults suffer from varying degrees of lactose intolerance. Excessive sugar intake has become a hot topic in the field of nutritional health, sparking concerns about obesity, diabetes, and other related issues. Therefore, reducing lactose content in dairy products has become a critical issue that the dairy industry must address. This study addresses the actual needs of the dairy industry by utilizing heterologous recombinant expression technology to obtain two recombinant proteins: a combination of the catalytic properties of a glycosyltransferase-type β-galactosidase and glucose oxidase. The β-galactosidase converts lactose into galactooligosaccharides and glucose, which are then further processed by glucose oxidase to convert glucose into glucuronic acid. This process preserves the nutritional value of dairy products while alleviating lactose intolerance, reducing carbohydrate intake, and increasing dietary fiber content. [Wiki](https://2025.igem.wiki/shanghai-hs) | [Official Page](https://teams.igem.org/5923)https://static.igem.org/peertube/streaming-playlists/hls/fcd15146-fae3-4b6f-8992-7a19dfbf370d/954b2197-54a8-4f78-84f9-6f5bc6e0ed0e-master.m3u8https://video.igem.org/videos/embed/xdGHFGJDMHyvcuqVStfRrx1070442025-08-12T07:40:17.987ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9LnBQ4oLU1tbKbbt23e5DXhttps://video.igem.org/lazy-static/thumbnails/bfb43ff8-0e02-41b7-9690-0712934d88ae.jpgHainanU-China: Epilepsy Shield：BHBio＆EEGSense (2025) - Project Promotion [English]**Title:** Epilepsy Shield：BHBio＆EEGSense **Description:** Epilepsy is one of the most common chronic brain diseases worldwide, which can triple the risk of premature death for patients. Ketogenic diet therapy is a relatively long-term and effective treatment. The process of liver ketogenesis may lead to side effects such as ketoacidosis. To this end, we designed a pathway capable of producing ketone body β - hydroxybutyric acid (BHB) in Escherichia coli Nissle1917 and designed a dynamic regulatory module. We use double-layer hydrogel to wrap the engineered bacteria and colonize them in the intestinal tract, while ensuring safety. We have developed a concealed behind the ear EEG acquisition device cEEGrid to improve patient compliance. We have also developed software that can receive and process raw EEG transmitted through cEEGrid via Bluetooth (with our epilepsy disease monitoring and prediction model as the core), visualizing the risk of epileptic seizures. This project aims to achieve the prevention and treatment of epilepsy through innovative methods, and care for vulnerable groups with epilepsy. [Wiki](https://2025.igem.wiki/hainanu-china) | [Official Page](https://teams.igem.org/5911)https://static.igem.org/peertube/streaming-playlists/hls/46fb2855-fd05-4e27-bbc6-213b192e1ab1/b9bea5e2-3443-4b55-8871-00fa6763d83b-master.m3u8https://video.igem.org/videos/embed/9LnBQ4oLU1tbKbbt23e5DX1230282025-08-12T09:37:39.932ZYES2025 Project PromotionsNOhttps://video.igem.org/w/m6vRL9XPBMLW86T92PxHzFhttps://video.igem.org/lazy-static/thumbnails/2368be4f-15df-4e2b-a2f3-358d60574fc6.jpgNEBS-VCA: Dynamic Simulations-Assisted Engineering of Hydrolases for Efficient P... (2025) - Proj...**Title:** Dynamic Simulations-Assisted Engineering of Hydrolases for Efficient PET/PBAT Depolymerization **Description:** This promotional video focuses on tackling plastic pollution through enzymatic degradation technology. Our team subsequently provided a detailed account of this research methodology, elaborating on an enzyme development paradigm that integrates metagenomic mining with artificial intelligence-driven protein engineering. This paradigm leverages Hidden Markov models to identify hydrolases from environmental DNA libraries, thereby accelerating the discovery of PET hydrolases through the synergistic effect of big data and artificial intelligence. Our team emphasized the application of molecular dynamics simulations in our research, which enables real-time observation of the interaction mechanism between PET fragments and the active site of PETase. Additionally, our team clarified the two-step cutinase-like mechanism (acylation and deacylation) involved in the enzymatic hydrolysis of PET, and noted that iterative selection yields optimized enzymes. We are constructing a pipeline for engineering polyester hydrolases to address global plastic waste, marking a pivotal turning point for sustainable PET recycling and the broader plastic circular economy. [Wiki](https://2025.igem.wiki/nebs-vca) | [Official Page](https://teams.igem.org/6008)https://static.igem.org/peertube/streaming-playlists/hls/a2bbe485-d6cb-4a28-b8f5-e158031e754d/ecd38e9e-a112-4841-a71d-3ebf983e7aba-master.m3u8https://video.igem.org/videos/embed/m6vRL9XPBMLW86T92PxHzF1200112025-08-12T10:10:40.780ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rhMkLEb31fcy1NZDC6jCWjhttps://video.igem.org/lazy-static/thumbnails/28e613fe-e250-4f90-b120-3b295c8bcfa5.jpgHDKWA: Microbial Synthesis of the Healthy Sweetener Erythritol Using Dual Substr... (2025) - Proj...**Title:** Microbial Synthesis of the Healthy Sweetener Erythritol Using Dual Substrates **Description:** Excessive sugar intake poses significant health risks, and the discovery and rational use of sweeteners help reduce sugar content in food products. Erythritol, as a natural sweetener, exhibits unique physicochemical properties—it avoids the aforementioned health hazards while offering additional benefits such as low caloric value, high stability, and no gastrointestinal discomfort. For erythritol production, chemical synthesis methods are economically unviable, leading to growing research focus on microbial biosynthesis. Current studies primarily aim to improve erythritol yield and production efficiency. Addressing this challenge, our work first enhances and integrates the erythritol biosynthesis pathway in bacteria through molecular biology techniques. Additionally, we introduce a glycerol metabolic pathway, which serves dual purposes: reducing byproduct formation and expanding the utilization of low-cost substrates by redirecting carbon flux toward erythritol production. Glycerol, an abundant and low-value renewable resource, has recently gained attention as a promising substrate for erythritol fermentation. This study explores its potential to enable cost-effective and sustainable erythritol biosynthesis. [Wiki](https://2025.igem.wiki/hdkwa) | [Official Page](https://teams.igem.org/5763)https://static.igem.org/peertube/streaming-playlists/hls/cccc4f22-62f8-48af-b816-0ad8a3ae6bbe/0cbf9e44-031e-4f25-8f42-eca9f249e748-master.m3u8https://video.igem.org/videos/embed/rhMkLEb31fcy1NZDC6jCWj950102025-08-12T10:27:37.341ZYES2025 Project PromotionsNOhttps://video.igem.org/w/f12N4geUjMrGHVbiJxCE2mhttps://video.igem.org/lazy-static/thumbnails/334c1c73-f3ae-4928-a92c-e54572b68519.jpgHKUST-GZ: Freshness Extended: Reimagining Lychee Preservation with Melatonin and... (2025) - Proj...**Title:** Freshness Extended: Reimagining Lychee Preservation with Melatonin and Wax **Description:** Lychees have long been celebrated as an iconic fruit in Cantonese culture, but their thin, porous peel and rapid post-harvest metabolism can lead to quick moisture loss and oxidation, making them highly perishable within hours. This limits access to fresh lychees in distant markets. To overcome this, we propose a preservation method combining wax membrane and exogenous melatonin to enhance the fruit’s natural defenses and extend shelf life while maintaining its freshness. [Wiki](https://2025.igem.wiki/hkust-gz) | [Official Page](https://teams.igem.org/5573)https://static.igem.org/peertube/streaming-playlists/hls/71610c00-1ecc-45f4-bffe-8bcd3bd90cb6/7d8918ab-b096-4225-aa37-f82aefc4cbbe-master.m3u8https://video.igem.org/videos/embed/f12N4geUjMrGHVbiJxCE2m1200642025-08-12T10:59:07.201ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3Td7MEyZAtVUuQfD9AsboLhttps://video.igem.org/lazy-static/thumbnails/8b9d01c7-87d8-4313-b5af-6a905847f8a8.jpgHamburg: DeathCapTrap (2025) - Project Promotion [English]**Title:** DeathCapTrap **Description:** Mushroom foraging can be life threatening. Most often Children and animals are affected. Alpha Amanitin is the reason why the Death Cap is the most dangerous mushroom in the world. Just 25g (a half of a normal death cap) of this mushroom is a lethal dose for adults and even less for children. If poisoning does occur, medicine still lacks proper treatment. There are some supporting therapeutics that treat the symptoms, but doubt not prevent liver failure. There is yet no antidotes to Death Cap poisoning. And here we come in.. We at Team DeathCapTrap are developing a biopharmaceutical based antidote for the poison of the Death Cap mushroom. As the main organ of metabolism, the liver falls victim to Amanitin first and remains there through the enterohepatic circulation. The Death Cap’s poison, is a very small cyclic peptide that interferes with the essential process of transcription. To defeat the poison, exactly where it causes havoc, we developed a Nanobody specific for Amanitin, that is brought to the liver cells in need inside of lipid nanoparticles. The nanobody targets the domain of the toxin that binds RNA Polymerase 2 and causes cell death, effectively inhibiting the toxins deadly effect. The nanobody binds the toxin (in the blood and cell nucleus), neutralizes it, and ensures that it is expelled from the body. Lipid nanoparticles with a special formulation can be administered into a patient's bloodstream and specifically absorbed by the liver cells. Inside the cell, they open up, release our trapping nanobodies and the poison's fate is sealed. Our comprehensive approach can be extended to different kinds of toxins and different cells of the body. [Wiki](https://2025.igem.wiki/hamburg) | [Official Page](https://teams.igem.org/5561)https://static.igem.org/peertube/streaming-playlists/hls/1758ad4d-f2af-40c0-b8b6-e7ea6329c400/63c2a379-667c-4564-ae44-c36201cfdea3-master.m3u8https://video.igem.org/videos/embed/3Td7MEyZAtVUuQfD9AsboL1180202025-08-12T12:54:30.435ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nH3Dp1VZyAuQRieN4h7boQhttps://video.igem.org/lazy-static/thumbnails/8fb2ec76-06b3-4cf7-ac75-6846c2d4edac.jpgWageningenUR: BCoated – Tailored Protection for Tomorrow’s Crops (2025) - Project Promotion [Engl...**Title:** BCoated – Tailored Protection for Tomorrow’s Crops **Description:** Agriculture is changing fast, and farmers everywhere are feeling the heat. Drought and unpredictable weather, among other stressors, facilitate the need for crops that can thrive in tough conditions, be they caused by pathogen, pest or climate. However, traditional breeding for this same resilience takes years. At BCoated, we’re creating a fast, farmer-friendly solution: Customizable bacterial cellulose (BC) coatings that protect seeds and boost resilience, tailored to meet the challenges of today’s and tomorrow's fields. [Wiki](https://2025.igem.wiki/wageningenur) | [Official Page](https://teams.igem.org/5713)https://static.igem.org/peertube/streaming-playlists/hls/afcb094c-db23-480d-b1ad-b37d88e06a64/aa67fa54-e619-49c3-9c80-8d3b9dd33bcc-master.m3u8https://video.igem.org/videos/embed/nH3Dp1VZyAuQRieN4h7boQ1190962025-08-12T13:00:40.253ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mzaSZcy8aw62gLWyNoRY9Qhttps://video.igem.org/lazy-static/thumbnails/769d7325-5586-493d-8305-f8f27dccb686.jpgICT-Mumbai: 'R.E.Y.N.A.' - From Breakdown to Breakthrough in Space (2025) - Project Promotion [En...**Title:** 'R.E.Y.N.A.' - From Breakdown to Breakthrough in Space **Description:** Long-duration space missions face two critical challenges: the high payload of food supplies and accumulation of waste. Radiation-resistant Engineered Yeast for Nutrient production from Astro-waste (REYNA) addresses this by engineering Saccharomyces cerevisiae to convert Nitrogenous waste into essential amino acids, by enhancing nitrogen assimilation and protein biosynthesis. Dsup is introduced, strengthening the cell’s ability to resist and repair DNA damage. Cultivation occurs within a 3D-printed bioreactor, enveloped by a layer of melanin synthesized by Proteus vulgaris, providing an additional passive shield against Galactic Cosmic Rays. [Wiki](https://2025.igem.wiki/ict-mumbai) | [Official Page](https://teams.igem.org/5893)https://static.igem.org/peertube/streaming-playlists/hls/a69867e2-cc0b-4e85-b5be-32f70aa182a8/d79f2448-c75b-478e-90c1-6132ce098500-master.m3u8https://video.igem.org/videos/embed/mzaSZcy8aw62gLWyNoRY9Q11951092025-08-12T13:22:24.983ZYES2025 Project PromotionsNOhttps://video.igem.org/w/24TUtP2PnZ4Fwd726n41Q1https://video.igem.org/lazy-static/thumbnails/f830494b-da81-44c7-a43d-910e89064c20.jpgPatras-Med: Morphe: Reboot your metabolism. Rewire your reality (2025) - Project Promotion [English]**Title:** Morphe: Reboot your metabolism. Rewire your reality **Description:** Obesity, affecting over 1 billion people worldwide, is driven in part by leptin and insulin resistance in the hypothalamus. Morphe is a targeted gene therapy that conditionally silences HDAC6 in hypothalamic AgRP neurons to restore hormonal sensitivity. Our synthetic miRNA-based shRNA circuit integrates AND-gate logic for cell-type and state-specific activation, alongside a miR-7-5p safety switch, delivering an autonomous, precise, and safe therapeutic approach. [Wiki](https://2025.igem.wiki/patras-med) | [Official Page](https://teams.igem.org/5998)https://static.igem.org/peertube/streaming-playlists/hls/08a45b81-ebd9-40fd-b081-a30c1e449908/bb267b9a-4694-44e2-b0a8-c80b8d36a9df-master.m3u8https://video.igem.org/videos/embed/24TUtP2PnZ4Fwd726n41Q11200812025-08-12T13:28:39.350ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9ABKnrciwEA4i83DT1HzfMhttps://video.igem.org/lazy-static/thumbnails/938f2960-5a3c-4c57-915f-854911631df5.jpgGroningen: CRIKIT: Developing a rapid CRISPR-based diagnostic kit for antibiotic... (2025) - Proj...**Title:** CRIKIT: Developing a rapid CRISPR-based diagnostic kit for antibiotic resistance **Description:** Antibiotic resistance is one of the most critical emerging threats to global healthcare, with current projections indicating it will surpass cancer as a leading cause of mortality in the coming decades. Conventional methods for identifying antibiotic resistant infections are time-consuming, as they depend on culturing bacteria in the presence of antibiotics. This diagnosis delay often leads to trial-and-error treatment strategies, which not only compromise patient outcomes but also promote the spread of resistance. To address this challenge, we are developing CRIKIT, a rapid and versatile diagnostic tool based on CRISPR-Cas13 technology. CRIKIT uses programmable CRISPR guide RNAs (gRNAs) to target bacterial transcripts of specific antibiotic resistance genes. Upon recognition of its target, Cas13 is activated and initiates the collateral cleavage of nearby RNA. We make use of this property by adding a fluorophore-quencher reporter molecule that will generate a measurable fluorescent signal when Cas13 is activated. This mechanism provides a functional read-out of gene activity in real time, offering insight into active resistance mechanisms in bacteria. This dynamic, expression-based approach will enable clinicians to make rapid, targeted decisions about antibiotic therapies, reducing the reliance on empirical treatments and improving clinical outcomes. [Wiki](https://2025.igem.wiki/groningen) | [Official Page](https://teams.igem.org/5689)https://static.igem.org/peertube/streaming-playlists/hls/459e6d83-ec04-4db3-8b6c-effc26baed85/76d04e87-754f-4ade-8fe8-63c0a6ba8638-master.m3u8https://video.igem.org/videos/embed/9ABKnrciwEA4i83DT1HzfM1230492025-08-12T13:36:14.085ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sBL7gnEHyARoR2GhWh3RFghttps://video.igem.org/lazy-static/thumbnails/f93ce21c-fa2d-449c-982e-21b6f07e8370.jpgSubCat-China: Construction of a Chitinase Expression Genetic System and Its Appl... (2025) - Proj...**Title:** Construction of a Chitinase Expression Genetic System and Its Application in Biomass Resource Degradation and Conversion **Description:** Chitin, composed of N-acetyl-D-glucosamine, is the second largest polymer in nature after cellulose. Chitinases have the ability to degrade fungal cell walls and insect exoskeletons and produce N-acetylglucosamine oligomers or monomers. Chitinases catalyze chitin degradation, thus playing an important role and holding great potential in agriculture, medicine, and industry. Three chitinases from microbial sources were screened. Then, a chitinase-expressing genetic system was constructed by recombining the in vitro synthesized gene into a plasmid and expressing it in Escherichia coli. The constructed E. coli genetic system was optimized by testing chitin expression and enzyme activity. Expression conditions and gene sequence were adjusted to increase chitinase production and activity. By adding waste materials such as shrimp or crab shells to the chitinase or bacterial solution, the chitin in the shells can be recovered into valuable products such as amino acids, calcium lactate, and high-purity chitin, thereby improving biomass energy utilization. [Wiki](https://2025.igem.wiki/subcat-china) | [Official Page](https://teams.igem.org/5721)https://static.igem.org/peertube/streaming-playlists/hls/d78bd1d4-0ba3-4979-bffe-9d9310e4c4d9/d8876a32-4f60-4d04-a227-b7a806c54cfe-master.m3u8https://video.igem.org/videos/embed/sBL7gnEHyARoR2GhWh3RFg1180282025-08-12T14:05:34.222ZYES2025 Project PromotionsNOhttps://video.igem.org/w/b8yGWrmX3CtNgjuJqNZyd8https://video.igem.org/lazy-static/thumbnails/2c80d4e6-6379-467c-8778-695ab8268951.jpgCJUH-JLU-China: ABCS: Adipocyte-based real-time breast cancer surveillance syste... (2025) - Proj...**Title:** ABCS: Adipocyte-based real-time breast cancer surveillance system for postoperative patients **Description:** Breast cancer ranks among the leading cancers worldwide in both incidence and death rate. Existing detection methods require frequent hospital visits, which still cause considerable inconvenience as well as physical and mental burden. Therefore, breakthroughs are still needed in the real-time monitoring of breast cancer. Studies have shown that perimammary adipose tissue is closely related to the progression of breast cancer. Adipocytes in the tumor microenvironment can be induced by specific cytokines to transform into cancer-associated adipocytes (CAAs). Based on this, we designed and constructed engineered adipocytes for breast cancer monitoring. In these adipocytes we introduced an RNA-based AND-gate sensor capable of recognizing the transcription products of genes specifically upregulated in CAAs, and recruiting adenosine deaminases acting on RNA (ADARs) to convert adenosines (A) to inosines (I) in stop codons, thereby activating downstream pathways. The expression products will be excreted in urine to achieve visible detection of breast cancer. [Official Page](https://teams.igem.org/5542)https://static.igem.org/peertube/streaming-playlists/hls/5209bfa9-62e1-47ed-8491-d8ffea3fce87/78fc3bfb-1373-4128-820e-354ca3fc29d1-master.m3u8https://video.igem.org/videos/embed/b8yGWrmX3CtNgjuJqNZyd811953262025-08-12T14:15:04.838ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2hPMHx9vV1LqMv62Moocgjhttps://video.igem.org/lazy-static/thumbnails/b1dce7d1-222b-48b0-8572-644f9ce21032.jpgThessaloniki: siREN: A Targeted RNAi-Based Therapeutic Approach Against Chronic ... (2025) - Proj...**Title:** siREN: A Targeted RNAi-Based Therapeutic Approach Against Chronic Lymphocytic Leukemia **Description:** Chronic Lymphocytic Leukemia (CLL) is the most prevalent adult leukemia, often marked by treatment resistance and disease recurrence. iGEM Thessaloniki 2025 is developing an innovative RNA interference (RNAi)-based therapy that precisely targets the molecular mechanisms driving CLL progression. Our solution, siREN, uses a synthetic biology platform to design a safe, non-viral delivery system capable of transporting RNAi molecules directly to malignant cells, reducing off-target effects and enhancing therapeutic specificity. The approach is minimally invasive, highly adaptable, and built with translational scalability in mind. By integrating cutting-edge research with entrepreneurial vision, we aim to create a next-generation therapeutic strategy that not only addresses unmet clinical needs in CLL but also sets the foundation for future RNA-based cancer treatments. Our project combines scientific innovation with real-world application, bridging the gap between lab and clinic. [Wiki](https://2025.igem.wiki/thessaloniki) | [Official Page](https://teams.igem.org/5891)https://static.igem.org/peertube/streaming-playlists/hls/0a727d50-8ff8-4aaf-a01c-12a842cb29b4/51c1c76c-78c1-4072-944f-843aa41ad416-master.m3u8https://video.igem.org/videos/embed/2hPMHx9vV1LqMv62Moocgj1200732025-08-12T14:56:54.022ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qDoLwiU2GeqjAvXq6gWuDEhttps://video.igem.org/lazy-static/thumbnails/c1a9fd1f-c7be-4f57-8d88-dc09aedd06aa.jpgHangzhou-BioX: Redefining Fatigue: Synthetic Biology Captures Sports Science Sig... (2025) - Proj...**Title:** Redefining Fatigue: Synthetic Biology Captures Sports Science Signals in Sweat **Description:** As more people pursue fitness to improve their health, the lack of scientific training guidance remains common. Without real-time feedback, many unknowingly overtrain, increasing the risk of injury. Lactate—a key marker of fatigue, training intensity, and anaerobic metabolism—is still mainly detected through costly instruments and invasive blood sampling, limiting its everyday use. To solve this, we developed a synthetic biology-based biosensor using engineered E. coli to express lactate oxidase, enabling detection of lactate in sweat through either a visible color change or an electrochemical signal. Our goal is to make scientific, precise training accessible to everyone. Whether for beginners or professional athletes, our sensor provides real-time insights into physical status, supporting smarter workouts and healthier progress. [Wiki](https://2025.igem.wiki/hangzhou-biox) | [Official Page](https://teams.igem.org/5750)https://static.igem.org/peertube/streaming-playlists/hls/c793e0dd-8b19-47a0-b609-d73b76c86d78/01fedc1f-857b-4f37-84b1-5f2c2cef5ce7-master.m3u8https://video.igem.org/videos/embed/qDoLwiU2GeqjAvXq6gWuDE1100362025-08-12T15:02:23.053ZYES2025 Project PromotionsNOhttps://video.igem.org/w/c6Rjar8jpYFLFGVo98WNxhhttps://video.igem.org/lazy-static/thumbnails/47f24f1e-37d8-4fa2-afcb-8bd4f1beda8c.jpgHsinchuTaichung-TWN: BEADS Introduction: How has Bisphenol A been affecting us? ... (2025) - Proj...**Title:** BEADS Introduction: How has Bisphenol A been affecting us? How do we tackle BPA Pollution? **Description:** BPA is all around us — in products we trust and use every day. Most people have no idea they’re being exposed to it constantly, and even fewer know what it’s doing inside their bodies. Before we can fight this invisible threat, we first need to detect it. And That’s where we begin. Introducing BEADS- Bisphenol A Exposure Analysis Detection System Presented by the HsinchuTaichung-TWN Team from Taiwan | Laney Chen | Zoey Chang | Alicia Chen | Google Chen | Brian Sung | Georgina Peng | Andrew Yu | [Wiki](https://2025.igem.wiki/hsinchutaichung-twn) | [Official Page](https://teams.igem.org/6016)https://static.igem.org/peertube/streaming-playlists/hls/59e5a269-335e-4f98-bf8c-b296d6110c6e/99c8c3fa-188c-4c80-b2c2-dc08ef2006e5-master.m3u8https://video.igem.org/videos/embed/c6Rjar8jpYFLFGVo98WNxh1225222025-08-12T15:08:35.093ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3iwbDosZATceEXRMVWFHxFhttps://video.igem.org/lazy-static/thumbnails/7bd2b2e9-d2fd-4762-be55-90c0edf0156b.jpgZQT-Nanjing: KINETiC (Kynurinine-depleting Immuno-reversal Network in E.coli for... (2025) - Proj...**Title:** KINETiC (Kynurinine-depleting Immuno-reversal Network in E.coli for Therapy in Colorectal Cancer **Description:** In recent years, kynureninase (KYNase), as a key enzyme in the tryptophan metabolic pathway, has gradually attracted extensive attention in the field of cancer immunotherapy. Its therapeutic advantage mainly lies in its targeted clearance of the immunosuppressive metabolite - kynurenine (Kyn). We utilized synthetic biology methods and engineered bacteria to express KY Nase, regulating the metabolism of the KP pathway within tumor cells, consuming its downstream metabolite Kyn. This inhibits tumor immune escape, enhances the host's immune system response, and achieves tumor cell death. Through reasonable design, we can achieve unique combined functions for the treatment of cancer. Here, we utilized Escherichia coli BL21 (DE3) as the chassis cell and the hypoxic and high-lactic-acid regulatory ALPaGA subsystem as promoter, to express KYNase in the tumor microenvironment. We also made semi-rational modifications to KYNase, hoping to obtain an enzyme with better catalytic effect. We designed and built a PhiX174E lysis protein module to release KYNase extracellularly at the right time. For biosafety, we designed a suicide switch to prevent engineered strains from being released into the environment. Our project is expected to promote the treatment of colorectal cancer and provide a new idea and method for cancer treatment. [Wiki](https://2025.igem.wiki/zqt-nanjing) | [Official Page](https://teams.igem.org/5791)https://static.igem.org/peertube/streaming-playlists/hls/12a485cd-b131-4e8c-b531-f0e40373a449/e66adc47-c3e9-42b1-a2a6-dda554a41171-master.m3u8https://video.igem.org/videos/embed/3iwbDosZATceEXRMVWFHxF1180152025-08-12T15:34:04.524ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ovgPqyrfW63fEVbpu8E4oQhttps://video.igem.org/lazy-static/thumbnails/c41ea686-c74a-48cb-bba0-82f813c0570e.jpgPuiChing-Macau: Bioreactive heritage protection using engineered E. coli with en... (2025) - Proj...**Title:** Bioreactive heritage protection using engineered E. coli with enhanced sulfur reduction and biosilica coating **Description:** Recently, more and more cultural heritage sites used microorganisms for biocleaning and protection. Our project leverages synthetic biology to develop a sustainable solution to protect heritage sites from environmental deterioration. Our project comprises two parts. Firstly, we addressed acid erosion by engineering sulphur reduction pathways. We engineered E. coli to reduce sulfate and sulfite to cysteine. We utilised two genes, YdeD, which exports cysteine out of bacterial cells, and YhaM, which degrades cysteine, to drive the reduction pathway. Secondly, we employed silicatein-expressed E. coli to catalyse the formation of biosilica from tetraethyl orthosilicate. This biosilica could fill cracks in structures and improve structural integrity. We also adopted csgA adhesion domain, which ensures our engineered E. coli adheres to building surfaces under acidic conditions. Together with our hardware for crack-repairing and models to estimate corrosion, we believe our project can bring new insights for future heritage protection projects utilising synthetic biology. [Wiki](https://2025.igem.wiki/puiching-macau) | [Official Page](https://teams.igem.org/5685)https://static.igem.org/peertube/streaming-playlists/hls/b63f5e29-7560-4629-abfb-c34c2853c938/b1882531-d6a5-4982-9688-5b61956e3c57-master.m3u8https://video.igem.org/videos/embed/ovgPqyrfW63fEVbpu8E4oQ1230952025-08-12T15:36:22.008ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6MEhWYebfJjBzKV8STuuqkhttps://video.igem.org/lazy-static/thumbnails/477ec463-c0cc-4531-ab1a-106edf34aff0.jpgNWU-CHINA-C: Targeting DDRs：Modular biomanufacturing of collagen (2025) - Project Promotion [Engl...**Title:** Targeting DDRs：Modular biomanufacturing of collagen **Description:** Breast cancer has become one of the most prevalent malignancies among women worldwide. We designed a strategy for the large-scale production of human recombinant type III collagen for breast cancer treatment. During breast cancer progression, the tumor microenvironment develops a dense fibrotic barrier. This barrier severely impedes T-cell infiltration and obstructs the efficient delivery of antibody-based therapeutics and chemotherapeutic agents, thereby limiting the efficacy of current treatment modalities (e.g., chemotherapy, targeted therapy, and immunotherapy). Type III collagen plays a crucial role in inducing cancer cell dormancy through the DDR1/STAT1 signaling pathway, while also contributing to the maintenance of the fibrotic barrier and the establishment of an immunosuppressive microenvironment. However, collagen traditionally extracted from animal sources presents significant limitations, including viral contamination risks, high immunogenicity, and non-specific tissue disruption. Consequently, this project proposes a synthetic biology strategy targeting the DDR1 signaling axis. We established a highly efficient microbial expression system for the production of recombinant type III collagen. This system provides practical experience for the industrial-scale production of recombinant collagen and paves the way for developing customized biomimetic extracellular matrix systems. [Wiki](https://2025.igem.wiki/nwu-china-c) | [Official Page](https://teams.igem.org/5644)https://static.igem.org/peertube/streaming-playlists/hls/2eddc2e8-5f96-45e2-b5b3-4c516ab17e83/09eff688-5a26-4407-86e7-90b487280181-master.m3u8https://video.igem.org/videos/embed/6MEhWYebfJjBzKV8STuuqk1190262025-08-12T15:37:24.776ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uRDtDbCks4MgtPK6cQ4qiThttps://video.igem.org/lazy-static/thumbnails/5acb90fc-c22a-437b-aaf8-c5bd0a2d144c.jpgUCAS-China: Protato helps! (2025) - Project Promotion [English]**Title:** Protato helps! **Description:** Bacterial Speck is a common disease of tomato caused by (Pseudomonas syringae pv. tomato) Pst that reduces production. To help farmers detect and prevent it in its early stage, we developed Protato: a cell-free sysytem for farmers to detect Pst conveniently. Although the disease reduce both quality and quantity of tomato production, there's still no proper method to treat it. Farmers have to spray broad-spectrum pesticide from time to time to prevent its wide spread since Pst has a cubation period from 3 days to several weeks, which is not good for green agriculture. Protato, with dual inputs, AvrRpt2 and COR, creates an AND gate system through the process of proteolysis and rearrangement of CC domains, eventually leading to a detectable output signal. Protato is here to protect tomatoes! [Wiki](https://2025.igem.wiki/ucas-china) | [Official Page](https://teams.igem.org/5647)https://static.igem.org/peertube/streaming-playlists/hls/e9ae6c47-8ea7-4ee8-8a45-079c52ee9285/04bd10e6-4394-4b19-9e05-76a19e3682c8-master.m3u8https://video.igem.org/videos/embed/uRDtDbCks4MgtPK6cQ4qiT1090312025-08-12T15:40:00.637ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cdJC1gWyPFM8j96LANQGz7https://video.igem.org/lazy-static/thumbnails/2bfe4e23-7122-4fa8-98c4-795632b65949.jpgMammothEdu-DTD-East: Vesper: Starlight and Scents (2025) - Project Promotion [English]**Title:** Vesper: Starlight and Scents **Description:** During a camping trip, we experienced the serenity of starlight and floral scents in a wilderness tent. This natural immersion relaxed our minds and bodies, offering respite from fast-paced city life. Inspired by this, we envisioned bringing nature's tranquility to those bound by urban routines. Through synthetic biology—not electronic devices—we've created a sustainable way to deliver nature's restorative benefits without traveling to remote areas. Our innovation: self-illuminating, fragrance-releasing yeast that brings starlight and floral aromas into homes, making nature's therapeutic embrace accessible anytime. [Wiki](https://2025.igem.wiki/mammothedu-dtd-east) | [Official Page](https://teams.igem.org/5778)https://static.igem.org/peertube/streaming-playlists/hls/5adbb76b-7605-4a8b-9a5e-82595d9e0c40/d03ff8e1-e161-40db-b112-0571f273e2c1-master.m3u8https://video.igem.org/videos/embed/cdJC1gWyPFM8j96LANQGz71230892025-08-12T16:00:10.523ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3LstUFhatLqfeDZEsDtcXghttps://video.igem.org/lazy-static/thumbnails/0d8c548a-4cac-45d8-9bdf-38edd6f89ca2.jpgShanghai-Explore: The Erucamide Solution (2025) - Project Promotion [English]**Title:** The Erucamide Solution **Description:** In our project, we engineered E. coli to produce erucamide — a compound that helps plants fight off harmful bacteria. The process starts when glucose enters the cell through PtsG, a protein that brings it inside and starts breaking it down into acetyl-CoA. This molecule then goes through the fatty acid synthesis pathway, where the enzyme FabH helps turn it step-by-step into erucic acid, a long-chain fatty acid. Next, another enzyme, GlnA, changes erucic acid into erucamide. Erucamide works by blocking the type III secretion system (T3SS) that many plant pathogens use to inject harmful proteins into plant cells. Without this system, the bacteria can’t infect plants as easily, giving crops better protection. [Wiki](https://2025.igem.wiki/shanghai-explore) | [Official Page](https://teams.igem.org/5889)https://static.igem.org/peertube/streaming-playlists/hls/166752a3-54d1-422d-bd1e-0b5e445527d9/daaaa87d-a741-44cd-8827-d5633e124f6d-master.m3u8https://video.igem.org/videos/embed/3LstUFhatLqfeDZEsDtcXg1200152025-08-12T15:46:56.830ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1h6UmC3uJkeSjb1A1jiQN3https://video.igem.org/lazy-static/thumbnails/1fef6e01-2bfd-420c-ba5f-ce0020a4d198.jpgLund: Fashion Shouldn't Cost the Earth (2025) - Project Promotion [English]**Title:** Fashion Shouldn't Cost the Earth **Description:** Polyester, made from PET plastic, makes up over half of all fabrics worldwide — yet less than 1% is recycled in the EU. At iGEM Lund 2025, we’re tackling this waste crisis with synthetic biology. Our team is engineering microbes to break down PET into terephthalic acid (TPA) and convert it into biodegradable polymers. We’ll design a novel enzyme to activate TPA for upcycling, and test PET-degrading enzymes in bacteria and yeast. Our goal: transform plastic waste into sustainable materials and close the loop on textile pollution. [Wiki](https://2025.igem.wiki/lund) | [Official Page](https://teams.igem.org/5651)https://static.igem.org/peertube/streaming-playlists/hls/023f89b8-da4a-4955-8cbe-635a7ebebb76/848922e1-defe-4745-970f-dfe624216885-master.m3u8https://video.igem.org/videos/embed/1h6UmC3uJkeSjb1A1jiQN31060552025-08-12T16:00:29.041ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tu8JE7jB1noHcJLzVb9tE1https://video.igem.org/lazy-static/thumbnails/c70914db-7385-4c0e-9920-de992cd05dee.jpgSubCat-United: Marine Soft Gold": Research on the Application of Mussel Adhesive... (2025) - Proj...**Title:** Marine Soft Gold": Research on the Application of Mussel Adhesive Proteins in Antibacterial Coatings for Medical Devices **Description:** Mussel foot proteins (Mfps) are a class of proteins secreted by mussel byssus, featuring exceptional underwater adhesion, waterproofness, toughness, and durability. They exhibit great application potential in fields such as biomedicine, cosmetics, and medical coatings. However, the current production of Mfps mainly relies on direct extraction from mussels, a process that is costly, inefficient, and unable to meet the demand for high yield and consistent quality. To overcome this bottleneck, the present study aims to explore the use of Escherichia coli as a biosynthetic platform for the efficient production of Mfps through a heterologous expression strategy. Furthermore, by applying sequence-based molecular design, we seek to construct functional fusion proteins with strong adhesiveness, enhanced antibacterial activity, and good biocompatibility for the preparation of antimicrobial coatings for medical devices. [Wiki](https://2025.igem.wiki/subcat-united) | [Official Page](https://teams.igem.org/6005)https://static.igem.org/peertube/streaming-playlists/hls/de945626-d8c4-416d-b057-b5c4add6c1a8/a8c41804-bb63-49ce-97b8-5f27fcead001-master.m3u8https://video.igem.org/videos/embed/tu8JE7jB1noHcJLzVb9tE11180222025-08-12T16:17:52.779ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uqDfnw1zWokFfYEJXB4F7uhttps://video.igem.org/lazy-static/thumbnails/790ee285-638d-4408-8971-15b3888f026a.jpgHKUST: Slupeer, a hero against cadmium (2025) - Project Promotion [English]**Title:** Slupeer, a hero against cadmium **Description:** Slupeer addresses the challenge posed by cadmium pollution within sewage sludge. Sewage processing generates lots of sludge, even after incineration, it remains laden with significant heavy metal concentrations, which may enter the ecosystem through the disposal of sludge. Slupeer leverages P. putida bacterium to express metallothioneins on its surface as an anchor for cadmium ions. The system integrates a biosensor for real-time monitoring and a kill switch for safety. This approach delivers a highly specific and effective way for cadmium extraction, pioneering a new method to bioremediate heavy metals. [Wiki](https://2025.igem.wiki/hkust) | [Official Page](https://teams.igem.org/5546)https://static.igem.org/peertube/streaming-playlists/hls/e630b00e-39a6-4360-b94f-6de344dbec7c/c23fe012-05d0-4178-94cd-8459665b8621-master.m3u8https://video.igem.org/videos/embed/uqDfnw1zWokFfYEJXB4F7u1120242025-08-12T16:21:00.236ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wDax1UWMxj9a2fPdUauqu5https://video.igem.org/lazy-static/thumbnails/8e364cea-1a26-4ae6-9440-8969aecffd0e.jpgKeystone: Using SELEX technology to screen targeted molecular probes for detecti... (2025) - Proj...**Title:** Using SELEX technology to screen targeted molecular probes for detecting brain-derived tau protein **Description:** Alzheimer's Disease (AD) poses a global challenge with over 56 million affected, yet early detection remains limited by invasive or costly methods. Our project combines synthetic biology and CRISPR-Cas12a technology: using SELEX to screen DNA aptamers specifically targeting BD-Tau, a key AD biomarker, and coupling this with CRISPR's trans-cleavage activity for sensitive, low-cost detection. This approach enables non-invasive, precise early AD screening, aiming to improve diagnostic accessibility and patient outcomes. [Wiki](https://2025.igem.wiki/keystone) | [Official Page](https://teams.igem.org/5739)https://static.igem.org/peertube/streaming-playlists/hls/f8228e27-8784-4ac7-8838-46161e63bcac/c662865a-d593-4d3f-ad85-781f7ab5837b-master.m3u8https://video.igem.org/videos/embed/wDax1UWMxj9a2fPdUauqu51210172025-08-12T16:24:12.344ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6TNLrfRhxP6fqV7KU9KMBohttps://video.igem.org/lazy-static/thumbnails/0703c8cc-32b9-4bb1-9ef5-273bade34a4c.jpgRPTU-Kaiserslautern: SUSPACT - Sustainable Use of Synthetically Produced Antibod... (2025) - Proj...**Title:** SUSPACT - Sustainable Use of Synthetically Produced Antibodies for CRC Treatment **Description:** At RPTU Kaiserslautern, we are exploring how to revolutionize biopharmaceutical production. Using Chlamydomonas reinhardtii, a green microalga, we apply synthetic biology to create a sustainable platform for producing complex medicines like therapeutic antibodies used in cancer therapy. Our approach offers a promising alternative to conventional methods, reducing costs and environmental impact. Through this project, we aim to make life-saving therapies more accessible worldwide, proving that science and innovation can build a greener future. [Wiki](https://2025.igem.wiki/rptu-kaiserslautern) | [Official Page](https://teams.igem.org/5758)https://static.igem.org/peertube/streaming-playlists/hls/2fb9723b-8356-4551-8986-2d24ad6169d0/414a9869-6844-4924-b091-2d05acc2b139-master.m3u8https://video.igem.org/videos/embed/6TNLrfRhxP6fqV7KU9KMBo7802832025-08-12T16:42:18.985ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oayuV3NrAFdkrSEFrXZvcvhttps://video.igem.org/lazy-static/thumbnails/4ac56ab7-8b67-45cb-8c92-741322b2958b.jpgNAU-CHINA: Temperature-controlled One-step Synthesis of Colored Bacterial Cellulose (2025) - Proj...**Title:** Temperature-controlled One-step Synthesis of Colored Bacterial Cellulose **Description:** The textile industry, as an important sector of fashion industry, is the second largest pollution source in the world. Traditional textile manufacturing processes, which separate fiber production from dyeing, are highly water-intensive and incompatible with the principles of sustainable fashion. To address these challenges, our project developed an integrated system for bacterial cellulose weaving and dyeing using E. coli. We have achieved one-step synthesis of colored bacterial cellulose through temperature regulation. At 25 ℃, bacterial cellulose was produced in large quantities through cascade amplification. When the temperature was raised to 37 ℃, natural pigments were expressed to realize customizable and pollution-free dyeing. We added hydrophobic proteins to the surface of bacterial cellulose to form a hydrophobic coating to enhance the fabric’s waterproof performance. This project aims to overcome the limitations of low bacterial cellulose yield expressed in E. coli and endow it with hydrophobic properties. It provides a solution for the fashion industry that integrates functional aesthetics with environmentally friendly choices. [Wiki](https://2025.igem.wiki/nau-china) | [Official Page](https://teams.igem.org/5855)https://static.igem.org/peertube/streaming-playlists/hls/b37ec5ba-a5c0-48d5-a55d-566448561867/6e9d684f-457c-4279-8535-d8aff3d76edf-master.m3u8https://video.igem.org/videos/embed/oayuV3NrAFdkrSEFrXZvcv1225552025-08-12T16:27:26.879ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ewZCKufLQTdmABdXSR276uhttps://video.igem.org/lazy-static/thumbnails/c16bd727-a4fe-46bb-8fe3-6ac90ff851b0.jpgMIT-MAHE: PhytClub - Saving Black Pepper! (2025) - Project Promotion [English]**Title:** PhytClub - Saving Black Pepper! **Description:** Phytophthora capsici is an oomycete pathogen that causes Pepper Foot rot, a devastating condition responsible for massive losses in yield, productivity and revenue. Current biocontrol strategies are ineffective and unsustainable. We aim to develop a targeted, preventative solution that curbs foot rot before it reaches the roots. [Wiki](https://2025.igem.wiki/mit-mahe) | [Official Page](https://teams.igem.org/5645)https://static.igem.org/peertube/streaming-playlists/hls/6d9aa237-6cf4-405e-914d-8fddde34304e/7c54b181-84d9-42f8-ad31-00df2fd1f3f5-master.m3u8https://video.igem.org/videos/embed/ewZCKufLQTdmABdXSR276u1190372025-08-12T16:43:10.516ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eRZsWsZm7ZFbfX3KYTTpGKhttps://video.igem.org/lazy-static/thumbnails/a81a839c-ae14-4376-b878-d79896a963f7.jpgBrno Czech Republic: Affordable, local protein for every farm by programmable du... (2025) - Proj...**Title:** Affordable, local protein for every farm by programmable duckweed **Description:** We’re turning duckweed from a weed into a crop in just 3 years instead of 3000, by creating a toolbox for fast and efficient genetic engineering. In doing so, we aim to unlock its potential to provide affordable, local protein for animal feed on every farm, ending the environmentally and economically unsustainable dominance of soybean. [Wiki](https://2025.igem.wiki/brno-czech-republic) | [Official Page](https://teams.igem.org/5642)https://static.igem.org/peertube/streaming-playlists/hls/7041a93a-48f3-4698-b7e5-926fd399975f/516e38fa-b4fc-4143-a3ef-5e96c9345b67-master.m3u8https://video.igem.org/videos/embed/eRZsWsZm7ZFbfX3KYTTpGK123515662025-08-12T16:58:37.901ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1DM9EfZLWgYRKzfZYjdCcYhttps://video.igem.org/lazy-static/thumbnails/aea7a340-5640-47a1-b007-e13918c4e3af.jpgZJU-China: LumaManta：All-in-one Device for Continuous Spatiotemporal Water Detec... (2025) - Proj...**Title:** LumaManta：All-in-one Device for Continuous Spatiotemporal Water Detection and Treatment **Description:** Luma Manta is a cutting-edge all-in-one device designed for precise detection of exposome information in aquatic environments at micro-spatiotemporal scales, as well as for the processing and collection of water pollutants and bioanalytes. By integrating a cell-free detection system, an algae-bacteria symbiotic module, a protein scaffold-based treatment unit, and a machine learning-driven information processing system, it enables multidimensional spectral data acquisition and analysis across time and space in diverse aquatic settings. This comprehensive approach not only facilitates accurate identification of pollutants and biological targets but also supports real-time monitoring and intelligent decision-making. With its strong potential in ecological monitoring and biodiversity protection, Luma Manta marks a crucial step toward sustainable water quality management and environmental conservation. [Wiki](https://2025.igem.wiki/zju-china) | [Official Page](https://teams.igem.org/5869)https://static.igem.org/peertube/streaming-playlists/hls/054657ff-28e3-4460-a082-bfd8c208e606/4e5e0f37-984d-49f2-80da-066e8ff7663e-master.m3u8https://video.igem.org/videos/embed/1DM9EfZLWgYRKzfZYjdCcY12001102025-08-12T17:04:50.027ZYES2025 Project PromotionsNOhttps://video.igem.org/w/pQ12NcV33c7NErdMa6osR6https://video.igem.org/lazy-static/thumbnails/cea95907-594e-4bc7-8a3a-d6f4e3895571.jpgKorea-HS: Fruit Peel Degradation Using Engineered Lactobacillus reuteri Expressi... (2025) - Proj...**Title:** Fruit Peel Degradation Using Engineered Lactobacillus reuteri Expressing Polygalacturonase (PGXc) **Description:** This item is the promotional video to the iGEM project "Fruit Peel Degradation Using Engineered Lactobacillus reuteri Expressing Polygalacturonase (PGXc)" produced by Team Korea-HS. [Official Page](https://teams.igem.org/5773)https://static.igem.org/peertube/streaming-playlists/hls/c0f5e8c3-485a-44b2-bb93-3457d6e30867/82aa87ea-db31-4018-a386-761e49871dc5-master.m3u8https://video.igem.org/videos/embed/pQ12NcV33c7NErdMa6osR61150292025-08-12T17:11:50.461ZYES2025 Project PromotionsNOhttps://video.igem.org/w/awn28Nt4egU4CeH26EEBPphttps://video.igem.org/lazy-static/thumbnails/a60be19c-208e-41b6-ab8a-5c11224f0a83.jpgBNUZH-China: iRIS: A Bio Synthesis Ode to Van Gogh’s Irises (2025) - Project Promotion [English]**Title:** iRIS: A Bio Synthesis Ode to Van Gogh’s Irises **Description:** Inspired by Van Gogh’s Irises, iRIS merges art with synthetic biology using engineered E. coli. An optimized RGB photosensitive system employs red, green, and blue light to independently regulate indigo biosynthesis and halogenase production: blue light activates indigo synthesis, while red/green light induce halogenases for generating 6-bromoindigo and other colored dyes. This modular design enables precise, light-driven control over microbial pigment pathways, echoing the vibrant palette of Van Gogh’s masterpiece. Beyond a cross-disciplinary experiment, iRIS highlights synthetic biology’s potential in biosynthetic regulation and novel material creation. As microbes "paint" under light cues, we honor Van Gogh’s timeless ode to imperfect beauty—reimagining art through living systems and advancing bio-inspired innovation. [Wiki](https://2025.igem.wiki/bnuzh-china) | [Official Page](https://teams.igem.org/5858)https://static.igem.org/peertube/streaming-playlists/hls/4d1f83ca-35f9-4034-b693-35f40e9ddad9/4e4d09f5-bb5d-4bf3-89a4-53137f2534a5-master.m3u8https://video.igem.org/videos/embed/awn28Nt4egU4CeH26EEBPp1220322025-08-12T17:12:55.758ZYES2025 Project PromotionsNOhttps://video.igem.org/w/fwZd39E9nhYbGQGYSLqbVyhttps://video.igem.org/lazy-static/thumbnails/342ba7ad-2e20-4157-af26-95e0b832cd9c.jpgAIS-China: HullGuard - a sustainable, zosteric acid-based antifouling coating (2025) - Project Pr...**Title:** HullGuard - a sustainable, zosteric acid-based antifouling coating **Description:** Barnacle adhesion drives biofouling on ship hulls, increasing drag, fuel use, and maintenance. To counter this, traditional antifouling paints often rely on heavy metals; while effective, their release can harm marine ecosystems. HullGuard offers a cleaner alternative: a zosteric acid–infused coating derived from seagrass. We produce zosteric acid via engineered E. coli fermentation, refine key enzymes with computational design, and validate performance in the lab. By preventing barnacle settlement at the source, HullGuard supports a shift toward safer, more sustainable marine practices. [Wiki](https://2025.igem.wiki/ais-china) | [Official Page](https://teams.igem.org/5715)https://static.igem.org/peertube/streaming-playlists/hls/75b3827e-1295-449c-93b2-68f66697c54a/0519176f-96a0-42b9-8402-903cf60ceb37-master.m3u8https://video.igem.org/videos/embed/fwZd39E9nhYbGQGYSLqbVy1230962025-08-12T17:16:40.842ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oHQu8AexagBPMkbNzki2Svhttps://video.igem.org/lazy-static/thumbnails/61600974-59ec-4a45-a136-4d1de8f0e6ac.jpgCUG-China: Solar2Chem: CO2 Capture via Engineered Acidithiobacillus ferrooxidans (2025) - Project...**Title:** Solar2Chem: CO2 Capture via Engineered Acidithiobacillus ferrooxidans **Description:** The climate crisis is a major global challenge, driving global warming, extreme weather, and ecosystem collapse. Greenhouse gas emissions, particularly carbon dioxide, are key contributors to this crisis. Therefore, we aim to address the significant issue of high greenhouse gas emissions by fixing carbon dioxide.The energy crisis is another pressing issue impacting sustainable development and human survival. A promising solution is converting solar energy into electrical energy via solar panels and using microorganisms to further convert electrical energy into chemical energy. Acidithiobacillus ferrooxidans, a chemolithoautotrophic bacterium, can fix CO2 while deriving energy from the oxidation of ferrous iron and sulfur compounds. The CUG-China 2025 team aims to enhance the carbon fixation efficiency of this bacterium through synthetic biology, producing chemical products and achieving the conversion of solar energy to electrical energy and ultimately to chemical energy. We have developed a microbial electrochemical synthesis system connected to solar panels to facilitate this energy conversion process. [Wiki](https://2025.igem.wiki/cug-china) | [Official Page](https://teams.igem.org/5665)https://static.igem.org/peertube/streaming-playlists/hls/b8006ccf-8b1e-486f-8158-7fc14b22c88d/49cfa402-31c2-45fe-80bd-c4c390862cd8-master.m3u8https://video.igem.org/videos/embed/oHQu8AexagBPMkbNzki2Sv1230152025-08-12T17:23:34.628ZYES2025 Project PromotionsNOhttps://video.igem.org/w/pZkcU1ZggnkQoAHh7fzeY4https://video.igem.org/lazy-static/thumbnails/e9cf9ff4-2c28-4e98-ac99-5b619ad88049.jpgHangzhou-MedX: The Salidroside Initiative: Protecting the Plateau and Every Hear... (2025) - Proj...**Title:** The Salidroside Initiative: Protecting the Plateau and Every Heartbeat with Synthetic Biology **Description:** Cardiovascular diseases increasingly threaten young populations due to stress and unhealthy habits. Salidroside, a cardioprotective compound from Rhodiola rosea, shows antioxidant and anti-hypoxic effects but is difficult to source sustainably. To solve this, we engineered Escherichia coli to biosynthesize salidroside via an optimized tyrosol pathway and heterologous expression of a UDP-glucosyltransferase (UGT). Furthermore, we developed a whole-cell biosensor enabling real-time detection of salidroside production. Our system provides an eco-friendly, scalable alternative to plant extraction, reducing pressure on fragile plateau ecosystems while supporting youth heart health through synthetic biology innovation. [Wiki](https://2025.igem.wiki/hangzhou-medx) | [Official Page](https://teams.igem.org/5989)https://static.igem.org/peertube/streaming-playlists/hls/c2436b6d-ce2f-451a-9411-a3028c6ce7cf/880c5b21-4e7e-43f9-80f8-a5f62e30ec25-master.m3u8https://video.igem.org/videos/embed/pZkcU1ZggnkQoAHh7fzeY41130232025-08-12T17:36:55.699ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ucTAPNtmY6HtWQbdNQ1Bp9https://video.igem.org/lazy-static/thumbnails/5fde203a-a059-4079-8402-5b299080c723.jpgBohemiaBio: AleChemy - Engineering beer for sustainable future (2025) - Project Promotion [English]**Title:** AleChemy - Engineering beer for sustainable future **Description:** We are a team of 15 students from two Prague universities, united by our passion for synthetic biology and innovation. We are engineering yeast to produce hop-derived flavor compounds, aiming to make beer brewing more sustainable. Combining expertise from diverse fields, we work together to design, test, and optimize the beer of the future. [Wiki](https://2025.igem.wiki/bohemiabio) | [Official Page](https://teams.igem.org/5904)https://static.igem.org/peertube/streaming-playlists/hls/e468dd24-5f82-46a9-afa8-7ae58f34caea/45ba8454-2816-4d66-be40-99d879386b8d-master.m3u8https://video.igem.org/videos/embed/ucTAPNtmY6HtWQbdNQ1Bp91200662025-08-12T17:37:34.518ZYES2025 Project PromotionsNOhttps://video.igem.org/w/5ixiwzBXnheunS3q9u2cPihttps://video.igem.org/lazy-static/thumbnails/1e3222d5-d2d1-4aa2-9991-f09cad219f4e.jpgUNILausanne: REEvolutionaTe - Revolutionising e-waste recycling (2025) - Project Promotion [English]**Title:** REEvolutionaTe - Revolutionising e-waste recycling **Description:** Our project, REEvolutionaTe, aims to develop a sustainable method for recovering rare earth elements (REEs) and tellurium (Te) using engineered bacteria capable of capturing and recycling these materials. Rare earth elements and tellurium are essential for industries such as electronics, renewable energy, and metallurgy, but their extraction is costly and polluting—especially from electronic waste or copper by-products. With global demand rising, particularly for praseodymium, neodymium, and dysprosium, it is crucial to find more eco-friendly alternatives. We focus on six rare earth elements (lanthanum, cerium, neodymium, dysprosium, gadolinium, praseodymium) and tellurium. Our work aims to design bacteria capable of efficiently extracting and recycling them from electronic waste. [Wiki](https://2025.igem.wiki/unilausanne) | [Official Page](https://teams.igem.org/5603)https://static.igem.org/peertube/streaming-playlists/hls/22d77d48-cf51-4b0c-9f0f-adaaf2a4e72b/82588c40-07c7-4c78-b697-1d0865e94e23-master.m3u8https://video.igem.org/videos/embed/5ixiwzBXnheunS3q9u2cPi12301242025-08-12T17:44:18.790ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nZvBxFNAYSRvMQXBcg2Jpwhttps://video.igem.org/lazy-static/thumbnails/8283f415-1915-44cb-8f2f-92b45accf592.jpgMCA: Whole-Cell Catalytic Synthesis Plant for Sialic Acid (2025) - Project Promotion [English]**Title:** Whole-Cell Catalytic Synthesis Plant for Sialic Acid **Description:** Sialic acid is an important class of functional sugars. Its predominant form is N-acetylneuraminic acid (NeuAc), a key component of brain gangliosides and the monomeric unit of sialylated oligosaccharides in Human Milk Oligosaccharides (HMOs). It performs diverse biological functions within organisms, playing critical roles in the development of tissues and organs, immune responses, cell adhesion, and the recognition and blocking of pathogen infections. In this project, we employ Escherichia coli to co-express the enzymes AGE (N-acetylglucosamine 2-epimerase) and NAL (N-acetylneuraminate lyase). To address issues of substrate-product flux balance and inter-enzyme mass transfer during the dual-enzyme catalytic process, we will assemble AGE and NAL into multi-enzyme complexes using either fusion protein technology or protein self-assembly technology. Leveraging the controllability (or tunability) of the self-assembly approach, we will optimize the expression ratio of the enzymes within the complexes to achieve highly efficient synthesis of sialic acid. [Wiki](https://2025.igem.wiki/mca) | [Official Page](https://teams.igem.org/5766)https://static.igem.org/peertube/streaming-playlists/hls/b2178e6b-7f50-4e11-8f87-6937b352f374/f74c7f77-5661-4840-a8ba-65dde1d5e58c-master.m3u8https://video.igem.org/videos/embed/nZvBxFNAYSRvMQXBcg2Jpw115062025-08-12T17:48:17.902ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9hzVRgUqT8mWXuMNBtCBcfhttps://video.igem.org/lazy-static/thumbnails/e5678162-97ff-402f-8932-2d8a128e0ec6.jpgMBG-DUTh: Degrade to Upgrade with Chitinator et al. (2025) - Project Promotion [English]**Title:** Degrade to Upgrade with Chitinator et al. **Description:** Every year, mountains of chitin-rich waste from shrimp shells and insect biomass are thrown away , polluting the environment and wasting valuable nutrients. At iGEM MBG-DuTh /Thrace 2025, we’ve turned this problem into a mission: Chitinator et al. By engineering a powerful fusion enzyme that fully breaks down chitin, we transform waste into nutrient-rich biofertilizer. Our eco-friendly approach supports soil health, reduces chemical fertilizer use, and promotes a truly circular bioeconomy. This is more than science , it’s a sustainable crusade for our planet’s future. [Wiki](https://2025.igem.wiki/mbg-duth) | [Official Page](https://teams.igem.org/5994)https://static.igem.org/peertube/streaming-playlists/hls/4319eb32-d46e-435f-b077-53a7b5c543a8/7e60ec62-e542-4fa2-8093-c4e7faf1a0a4-master.m3u8https://video.igem.org/videos/embed/9hzVRgUqT8mWXuMNBtCBcf1150582025-08-12T17:49:04.436ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tKtfXevDWY1VC8FiXyPKAchttps://video.igem.org/lazy-static/thumbnails/d5693087-fb39-4dbc-87e9-396f839b42c0.jpgSorbonne University: Néréis (2025) - Project Promotion [English]**Title:** Néréis **Description:** The Nereis project, launched this year by our team at Sorbonne University, involves degrade the hydrocarbons that pollute the oceans using a modified strain of Pseudomonas putida. Our goal is to offer a solution that fights against marine pollution. [Wiki](https://2025.igem.wiki/sorbonne-university) | [Official Page](https://teams.igem.org/5635)https://static.igem.org/peertube/streaming-playlists/hls/e0b8862e-5825-4a74-aa82-6b2e25b15843/46bf9a64-d9c7-4894-bf7d-cf76ac3962ac-master.m3u8https://video.igem.org/videos/embed/tKtfXevDWY1VC8FiXyPKAc1100452025-08-12T17:51:38.407ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7PcFEwsk8btugc7sKH5QXjhttps://video.igem.org/lazy-static/thumbnails/9888a98b-4704-4268-a2e4-3eebe16637e4.jpgSubCat-Peking: Production of Natural Food Preservatives Containing Lysozyme and ... (2025) - Proj...**Title:** Production of Natural Food Preservatives Containing Lysozyme and Antimicrobial Peptides Using Synthetic Biology **Description:** With the continuous growth of the global population, food safety has gradually become a key concern worldwide. Although traditional chemical preservatives can effectively extend food shelf life, their widespread use has raised numerous health concerns. Consequently, the development of natural, green, and non-toxic preservatives has emerged as a crucial trend in the food industry. Lysozyme and antimicrobial peptides (AMPs), as natural antibacterial components, have become research hotspots in food preservation due to their excellent antimicrobial properties and high safety profile. Lysozyme functions by catalyzing the hydrolysis of glycosidic bonds in bacterial cell walls, primarily targeting Gram-positive bacteria. Antimicrobial peptides, on the other hand, disrupt bacterial cell membrane structures, inhibiting pathogen growth with broad-spectrum antibacterial activity.This study aims to explore the combined preservative effects of lysozyme and antimicrobial peptides in food applications. The goal is to develop a green, safe, and natural food preservation technology. [Wiki](https://2025.igem.wiki/subcat-peking) | [Official Page](https://teams.igem.org/5742)https://static.igem.org/peertube/streaming-playlists/hls/372dfd55-a642-48a9-91b6-0b6bdc32ffd8/78bc8f06-3e3e-4396-9f8e-c862cab7e63f-master.m3u8https://video.igem.org/videos/embed/7PcFEwsk8btugc7sKH5QXj1200212025-08-12T17:55:40.837ZYES2025 Project PromotionsNOhttps://video.igem.org/w/asf3QhfUzNFCWfME6WSyJShttps://video.igem.org/lazy-static/thumbnails/fd967c2f-a353-45d4-bb03-5c81e3b69838.jpgWHU-China: A Solution of the Three-Body Problem: LOGIC (2025) - Project Promotion [English]**Title:** A Solution of the Three-Body Problem: LOGIC **Description:** Just as Liu Cixin described in his novel The Three-Body Problem, where a human-powered computer was used by the Three-Body civilization to solve the chaotic orbits of three suns, WHU-China used a more convenient, eco-friendly, and promising microbial computer to help the leader of their civilization—Qin Shi Huang—solve this problem. The result of the computation led the Three-Body civilization to decide to embark on a new journey...... [Wiki](https://2025.igem.wiki/whu-china) | [Official Page](https://teams.igem.org/5646)https://static.igem.org/peertube/streaming-playlists/hls/4c8c3e6d-bcef-40bf-a652-287cf2b1ef86/f3b753f8-671e-48f3-9b7f-421e484013ad-master.m3u8https://video.igem.org/videos/embed/asf3QhfUzNFCWfME6WSyJS1235242025-08-12T17:53:52.099ZYES2025 Project PromotionsNOhttps://video.igem.org/w/r1UXkpfu2MghYp3xNhmaCjhttps://video.igem.org/lazy-static/thumbnails/073f6682-188d-49f7-a2ff-a22b1072cd90.jpgBioplus-China: Enzyme color (2025) - Project Promotion [English]**Title:** Enzyme color **Description:** Dye pollution presents a stark threat to our environment and health: rivers discolored by eerie red, blue, or green hues, fertile lands turned barren by dye wastewater seepage, and ecosystems eroded as 10%-15% of organic dyes annually leak into water and soil—along with stubborn pollutants like heavy metals and organochlorides, 35% of which remain hard to treat. Beyond environmental damage, this pollution harms soil structure, reduces crop yields, and poses risks like skin allergies, organ damage, and long-term health threats. To address this, our team has developed an innovative solution leveraging enzymes' catalytic properties. Using various tyrosine derivatives, we produce bioenzyme dyes that enable efficient, low-pollution manufacturing and effective coloration. These eco-friendly dyes drastically cut environmental pollution, protect ecological balance, and eliminate chemical risks to human health. Reshaping the textile industry, they minimize resource use and emissions, steering it toward sustainability. With their widespread adoption, we envision a brighter future: bluer skies, clearer rivers, and greener lands. [Wiki](https://2025.igem.wiki/bioplus-china) | [Official Page](https://teams.igem.org/5733)https://static.igem.org/peertube/streaming-playlists/hls/ca9519c0-2742-44db-bb89-8a72707da31e/4ed7649c-4813-442e-8081-1aab3909eea6-master.m3u8https://video.igem.org/videos/embed/r1UXkpfu2MghYp3xNhmaCj1150142025-08-12T18:09:31.229ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1vjkfTzEkKPs4Ct2VGWR8thttps://video.igem.org/lazy-static/thumbnails/2f6009e4-0065-4fb0-9c77-d169e1f903d4.jpgSustech-Med: Engineering Bacterial Warriors to Defeat Colorectal Cancer (2025) - Project Promotio...**Title:** Engineering Bacterial Warriors to Defeat Colorectal Cancer **Description:** Harnessing synthetic biology, we engineer programmable bacteria to infiltrate tumors, awaken suppressed immune cells, and transform them into fierce cancer-fighting warriors. By precisely releasing immune-activating signals, our approach strikes directly at colorectal cancer’s defenses, offering a new, targeted hope for treatment from within [Wiki](https://2025.igem.wiki/sustech-med) | [Official Page](https://teams.igem.org/5638)https://static.igem.org/peertube/streaming-playlists/hls/0417dde8-d4c5-4609-8dc4-6e73ae093265/16d10467-2d11-4aa4-9360-6d1f0bdbdbda-master.m3u8https://video.igem.org/videos/embed/1vjkfTzEkKPs4Ct2VGWR8t1230662025-08-12T18:13:56.265ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uo6ipvj5Nsjh3Ht84Zc68yhttps://video.igem.org/lazy-static/thumbnails/cfc314ae-15c0-4247-bacd-b7552de08809.jpgBUCT: POLYGONE：Embedding Enzymes into Polyesters for True Marine Biodegradability (2025) - Projec...**Title:** POLYGONE：Embedding Enzymes into Polyesters for True Marine Biodegradability **Description:** Ester-based plastics such as PET, PBAT, and PLA are widely used for their excellent properties, with annual production reaching hundreds of millions of tons. However, the stable ester bonds in these materials are extremely resistant to breakdown in natural environments—especially in the low-temperature, high-pressure conditions of the ocean—causing them to persist for decades and posing one of the greatest challenges in plastic pollution management. Our team has harnessed synthetic biology to develop a marine-adapted depolymerase with broad substrate specificity, high activity, and outstanding thermal stability. By integrating enzyme immobilization and encapsulation technologies, we incorporate the enzyme directly into plastic manufacturing to activate true degradability at the source. In the waste-management stage, we design “detection + degradation” devices capable of precisely identifying and efficiently breaking down residual ester-based microplastics, bridging the critical “last mile” in plastic remediation. This system offers a sustainable, scalable solution to global ester-based plastic pollution and brings a transformative shift to the plastic life cycle. [Wiki](https://2025.igem.wiki/buct) | [Official Page](https://teams.igem.org/5566)https://static.igem.org/peertube/streaming-playlists/hls/e5d582ff-dd6d-4638-b0d6-ff1a95f960d2/0856b7d5-10f0-47c4-8eb3-ba626ec0c3c1-master.m3u8https://video.igem.org/videos/embed/uo6ipvj5Nsjh3Ht84Zc68y1220322025-08-12T18:18:50.135ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qj8PsyVJNamiwf1DKekgaMhttps://video.igem.org/lazy-static/thumbnails/74183d62-2b3f-4e0d-8389-71086d58cb1c.jpgHKGTC: AQus-HIM: A Quorum-Sensing Biosensor Kit for Hunting Invisible Microplastics (2025) - Proj...**Title:** AQus-HIM: A Quorum-Sensing Biosensor Kit for Hunting Invisible Microplastics **Description:** Current microplastic detection methods are inefficient and inconsistent across different studies and locations. Therefore, we have developed a biosensor kit which can be used for rapid microplastics detection. Join us in exploring how our biosensor kit hunts for microplastics to promote cleaner water and healthier marine ecosystems! [Wiki](https://2025.igem.wiki/hkgtc) | [Official Page](https://teams.igem.org/5815)https://static.igem.org/peertube/streaming-playlists/hls/c4e388ab-3c7b-462e-907e-b0f47901193b/2db75acc-cc27-44c9-9ee3-0a4899d7c79f-master.m3u8https://video.igem.org/videos/embed/qj8PsyVJNamiwf1DKekgaM1220962025-08-12T18:32:35.169ZYES2025 Project PromotionsNOhttps://video.igem.org/w/8grN6tYUUwq7du9yuS2eYZhttps://video.igem.org/lazy-static/thumbnails/e0dfbbfd-0606-4d97-a2f5-44aaab8e6414.jpgHunanU: AptAbt: Aptamer-Based Antibiotic Biosensor for Ensuring Food Safety (2025) - Project Prom...**Title:** AptAbt: Aptamer-Based Antibiotic Biosensor for Ensuring Food Safety **Description:** The misuse of antibiotics in agricultural and animal husbandry production can lead to antibiotic residues entering the human body through the food chain, posing risks to food safety and human health. Our team is developing an aptamer-based biosensor to detect antibiotic residues in food to safeguard your food's journey. [Wiki](https://2025.igem.wiki/hunanu) | [Official Page](https://teams.igem.org/5772)https://static.igem.org/peertube/streaming-playlists/hls/3ad80613-c362-42f7-8cbc-3a0df5a8c485/5865d17f-42bd-44ba-9274-cef80b9968d2-master.m3u8https://video.igem.org/videos/embed/8grN6tYUUwq7du9yuS2eYZ1220272025-08-12T18:31:38.350ZYES2025 Project PromotionsNOhttps://video.igem.org/w/xbfY1cPvcAFYFdH4W9voHthttps://video.igem.org/lazy-static/thumbnails/9a8d68a5-8e7e-433d-b9f9-3c8d5ef173c9.jpgNJU-China: Rebuild Gene Babel (2025) - Project Promotion [English]**Title:** Rebuild Gene Babel **Description:** Overall overview of the NJU-China team project. [Wiki](https://2025.igem.wiki/nju-china) | [Official Page](https://teams.igem.org/5832)https://static.igem.org/peertube/streaming-playlists/hls/fc79f582-a457-4bb6-be56-01d93cb8d485/fe46b7af-95c9-4b95-8760-0e4054977904-master.m3u8https://video.igem.org/videos/embed/xbfY1cPvcAFYFdH4W9voHt1210392025-08-12T18:37:54.782ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vZ26Qwo6ToJhXAWVcmuoMvhttps://video.igem.org/lazy-static/thumbnails/0ab9d9b6-0984-461c-9013-7a6aead677df.jpgMingdao: RePLAce with PLAstic：Optimizing PLA degradation： (2025) - Project Promotion [English]**Title:** RePLAce with PLAstic：Optimizing PLA degradation： **Description:** Our world is currently being engulfed by the ever growing annual production of plastic waste, and us humans suffer along with the destruction of nature. This prompts us to find a solution to combat this looming threat to humanity, and so we promote PLA product recycling and field-specific degradation, as demonstrated by our SDG activities and lab work. [Wiki](https://2025.igem.wiki/mingdao) | [Official Page](https://teams.igem.org/5604)https://static.igem.org/peertube/streaming-playlists/hls/f2cf1825-36b9-48a5-9b36-0cbb0ac02527/7dcfad97-34ba-4e1c-8cca-faa82776a7ff-master.m3u8https://video.igem.org/videos/embed/vZ26Qwo6ToJhXAWVcmuoMv1230432025-08-12T18:38:23.943ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gyAHvzhjCzxcKwJ2MjxWyUhttps://video.igem.org/lazy-static/thumbnails/b9e24e86-3869-43a1-9f4e-5d24bedf0d0b.jpgBJWZ-China: Simple PFAS detection and degradation system based on engineered Esc... (2025) - Proj...**Title:** Simple PFAS detection and degradation system based on engineered Escherichia coli **Description:** Per- and polyfluoroalkyl substances (PFAS), also known as "forever chemicals," are persistent in the environment and are extensively present in drinking water and soil. Traditional detection methods rely on large instruments (such as LC-MS), while degradation requires complex conditions, including high temperature and pressure. As a result, these methods are not suitable for low-cost scaling. This project endeavors to develop a simple and easy-to-operate integrated "detection-degradation" system. Engineered Escherichia coli will be utilized to enable visual detection and preliminary degradation of PFAS. [Official Page](https://teams.igem.org/5838)https://static.igem.org/peertube/streaming-playlists/hls/7e06465c-15b9-42e5-90b0-3860d8b61f64/9abc9278-0e18-4909-b09b-24ba1ef380b3-master.m3u8https://video.igem.org/videos/embed/gyAHvzhjCzxcKwJ2MjxWyU1200182025-08-12T18:52:14.652ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oiLNms7K3u23QqGXFybuFRhttps://video.igem.org/lazy-static/thumbnails/7355d4b6-7ae4-444c-a473-c89f2c93d397.jpgSMBU: HEPZERO: suppressing the expression of HBV genes (2025) - Project Promotion [English]**Title:** HEPZERO: suppressing the expression of HBV genes **Description:** HBV hides inside liver cells in the form of covalently closed circular DNA (cccDNA). cccDNA is extraordinarily stable: it can remain in the nucleus for years and is not eliminated by immune responses or current therapies. This is what makes HBV a chronic and difficult-to-cure infection. Targeting cccDNA remains the ultimate challenge in treating chronic hepatitis B. In our project, we have developed a strategy for suppressing the expression of HBV genes transcribed from cccDNA, to block the production and replication of viral particles. We have designed a dual-CRISPR system that targets cccDNA. By using two engineered guide RNAs that pair through a kissing loop, we bring two dCas proteins to key regulatory regions. These RNA–RNA interactions greatly increase the chance that both proteins bind exactly where needed, enabling safer editing of infected cells. This way, we block viral gene expression and replication without cutting DNA, so the host genome remains unharmed. [Wiki](https://2025.igem.wiki/smbu) | [Official Page](https://teams.igem.org/5861)https://static.igem.org/peertube/streaming-playlists/hls/b4a44d97-1bd8-499e-be59-7c2bfc4e0fa7/643f568f-ae7c-4dc3-8033-aec4f51e7898-master.m3u8https://video.igem.org/videos/embed/oiLNms7K3u23QqGXFybuFR1190272025-08-12T18:50:57.485ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sXqSqg3VV4J5Wz2hbUKnqphttps://video.igem.org/lazy-static/thumbnails/e539a907-1cbd-4009-87bd-5486d41ea365.jpgTU-Eindhoven: BRIGHTENING lives with better chronic diarrhea diagnosis (2025) - Project Promotion...**Title:** BRIGHTENING lives with better chronic diarrhea diagnosis **Description:** The iGEM TU Eindhoven Team has been working on a sensor detecting bile acids in stool samples, offering a solution to diagnosing chronic diarrhea patients. This is our submission for Project Promotion video, where we shine light on the unknown underlying mechanism for chronic diarrhea called Bile Acid Malabsorption (BAM), and our solution on how to diagnose it. [Wiki](https://2025.igem.wiki/tu-eindhoven) | [Official Page](https://teams.igem.org/5792)https://static.igem.org/peertube/streaming-playlists/hls/da4ad6b8-3637-41ab-a0f6-e9ca38fd9933/d39d0614-e2f2-4f14-b4ae-5e8f6f5c97ee-master.m3u8https://video.igem.org/videos/embed/sXqSqg3VV4J5Wz2hbUKnqp1233.33333333333333351492025-08-12T19:10:58.443ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qZgqM3AFToKJG9H2jv9G2uhttps://video.igem.org/lazy-static/thumbnails/9d631536-926f-4ace-81bf-9f955c21312c.jpgSZU-China: Aphigo：Dual RNAi strategy for precise and sustainable control of citr... (2025) - Proj...**Title:** Aphigo：Dual RNAi strategy for precise and sustainable control of citrus aphids **Description:** The SZU-China iGEM team aims to develop a dual-pathway RNA interference strategy to precisely control citrus aphids, the primary vectors of Citrus Tristeza Virus, which threaten citrus production globally. By combining trunk injection of RNA-loaded virus-like particles targeting sap-feeding wingless aphids with foliar application of engineered Metarhizium fungus infecting winged aphids, we offer a species-specific, environmentally friendly approach. This method effectively reduces pesticide reliance and combats growing insecticide resistance, promoting sustainable citrus agriculture and conservation of ecosystem health through synthetic biology. [Wiki](https://2025.igem.wiki/szu-china) | [Official Page](https://teams.igem.org/5588)https://static.igem.org/peertube/streaming-playlists/hls/ca5a3ae5-d1e3-4ad1-94e6-c5578fc06c06/700c018e-7c71-43cd-a2e3-499417c9a52e-master.m3u8https://video.igem.org/videos/embed/qZgqM3AFToKJG9H2jv9G2u12201602025-08-12T19:09:34.645ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vUwSpR2J9ub7NhRq15uhwEhttps://video.igem.org/lazy-static/thumbnails/85408b08-cae6-4628-b033-dc205ea66860.jpgTsinghua: DuCon: A Dual-bacteria system for vinasse recycling through Conversion... (2025) - Proj...**Title:** DuCon: A Dual-bacteria system for vinasse recycling through Conversion to succinate **Description:** Harboring large amounts of inferior carbon sources that are difficult to degrade ,the treatment of vinasse remains a key issue for environmental protection and resource utilization. In this year's iGEM competition, we innovatively designed a dual-bacteria system for the degradation of Baijiu vinasse and subsequent production of succinate (a high end-value product). In order to degrade inferior carbon sources in vinasse, we edited the gene of Trichoderma reesei (a chassis organism) by introducing the laccase gene of the white rot fungus into it, so that it could secrete laccase and cut lignin into short arenes (at the same time, the cellulase secreted by Trichoderma reesei could degrade cellulose, another common carbon source present in vinnase). Afterwards, another substrate organism, Pseudomonas putida, is introduced to absorb the short arenes and channel them into its own TCA pathway. Finally, we modified Pseudomonas putida's TCA pathway to specifically enrich succinate, then introduced a succinate efflux channel to secrete it for further application. The dual-bacteria system is expected to efficiently decompose cellulose and lignin in vinasse, and at the same time produce high value-added succinate, striking a balance between environmental protection and economic benefits. [Wiki](https://2025.igem.wiki/tsinghua) | [Official Page](https://teams.igem.org/5670)https://static.igem.org/peertube/streaming-playlists/hls/f22eb891-bd99-4d59-9ab4-2c23797f4652/a7bd8d22-5a70-478a-9db9-293e39d2400d-master.m3u8https://video.igem.org/videos/embed/vUwSpR2J9ub7NhRq15uhwE1230212025-08-12T19:20:05.305ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rzq6A7Bz9vsyc4dxQv3F9Bhttps://video.igem.org/lazy-static/thumbnails/33880772-3539-4f20-8fa1-037221495e63.jpgJapan scinet: PreserVEG (2025) - Project Promotion [English]**Title:** PreserVEG **Description:** PreserVEG is a synthetic biology solution that protects fresh produce, detects spoilage, and makes it visible. Using the Cre/loxP system, it produces nisin to stop harmful bacteria growth while vegetables are fresh, and switches to GFP fluorescence when spoilage begins. By extending shelf life and alerting users to early spoilage, PreserVEG aims to reduce global food waste and improve food safety. [Wiki](https://2025.igem.wiki/japan-scinet) | [Official Page](https://teams.igem.org/5702)https://static.igem.org/peertube/streaming-playlists/hls/cf1edc5e-279c-43c5-96af-5cd4f711804f/c7863a4c-99a6-406e-aabf-0b825a7bb276-master.m3u8https://video.igem.org/videos/embed/rzq6A7Bz9vsyc4dxQv3F9B1210272025-08-12T19:24:33.487ZYES2025 Project PromotionsNOhttps://video.igem.org/w/xAhQ7ZeCcRZPLK2GEPpLSbhttps://video.igem.org/lazy-static/thumbnails/f68c7323-b036-434d-b4b6-0416ab2f5c5d.jpgSCUT-China-L: GRACE: Ginsenoside-Rh1 from Red Algae to Cosmetic Essence (2025) - Project Promotio...**Title:** GRACE: Ginsenoside-Rh1 from Red Algae to Cosmetic Essence **Description:** We developed an innovative, eco-friendly method to produce rare ginsenoside Rh1 using synthetic biology. By engineering yeast with metabolic pathways from red algae, we efficiently synthesize Rh1, avoiding the environmental harm and high costs of traditional plant extraction or chemical synthesis. This sustainable approach leverages abundant marine resources, ensuring high-quality, affordable skincare products like serums and acne patches. Our breakthrough paves the way for greener cosmetics and unlocks the potential of marine bioresources. [Wiki](https://2025.igem.wiki/scut-china-l) | [Official Page](https://teams.igem.org/5843)https://static.igem.org/peertube/streaming-playlists/hls/ffd4f552-5e24-4d18-9a2f-156ce1e29e56/fd4ca46b-180c-4529-a7d3-7e5ca8364f24-master.m3u8https://video.igem.org/videos/embed/xAhQ7ZeCcRZPLK2GEPpLSb1150472025-08-12T19:34:35.984ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3Xjk8F9aTD7Xma58hiXwKBhttps://video.igem.org/lazy-static/thumbnails/35c4a7c5-e1b6-4bb9-b36a-443bdc5f0e77.jpgDEPU: Convert waste cooking oil into eco-friendly biodiesel (2025) - Project Promotion [English]**Title:** Convert waste cooking oil into eco-friendly biodiesel **Description:** Globally, millions of tons of waste oil are improperly handled, leading to pollution and illegal reuse. Our DEPU iGEM Team aims to convert this waste into eco-friendly biodiesel using synthetic biology. We will engineer Pichia pastoris to secrete high-efficiency lipases, optimizing enzymes and reaction conditions for real-world application. [Wiki](https://2025.igem.wiki/depu) | [Official Page](https://teams.igem.org/5790)https://static.igem.org/peertube/streaming-playlists/hls/17eb7b19-2294-4e54-8ff1-5808720fad81/f4d822be-9e24-4051-9bf4-d12faa48a703-master.m3u8https://video.igem.org/videos/embed/3Xjk8F9aTD7Xma58hiXwKB1180172025-08-12T19:25:18.883ZYES2025 Project PromotionsNOhttps://video.igem.org/w/fqkSbC4XewLut4v5cGvRx3https://video.igem.org/lazy-static/thumbnails/a8d24ac2-490c-4e51-8868-64583e51d3dd.jpgFHNW: SwissCas (2025) - Project Promotion [English]**Title:** SwissCas **Description:** Meet the FHNW Team’s project: SwissCas — using cutting-edge Cas12a technology to rapidly detect pathogens. [Official Page](https://teams.igem.org/5701)https://static.igem.org/peertube/streaming-playlists/hls/74c608ba-d1ce-4a87-8200-2007bce4f454/7e5f0b70-0eeb-4ce5-a0f8-3bf36b7e57e4-master.m3u8https://video.igem.org/videos/embed/fqkSbC4XewLut4v5cGvRx31190512025-08-12T19:38:19.440ZYES2025 Project PromotionsNOhttps://video.igem.org/w/q8BWiXTythjiEpDBJ79dm8https://video.igem.org/lazy-static/thumbnails/fbcf9039-7547-4561-9bae-9ea2fabdf150.jpgIZJU-China: Rewriting Resistance: The FoCas Approach (2025) - Project Promotion [English]**Title:** Rewriting Resistance: The FoCas Approach **Description:** FoCas is a DNA origami–based CRISPR-Cas9 delivery system designed to combat MRSA. By precisely cutting the mecA resistance gene, FoCas turns drug-resistant MRSA into treatable MSSA, restoring the power of conventional antibiotics and offering a versatile tool against antimicrobial resistance. [Official Page](https://teams.igem.org/5913)https://static.igem.org/peertube/streaming-playlists/hls/c36bae49-6447-4cc2-8d06-40fc2be9d45f/c2ee27ae-1f4c-4936-885c-148d97b8e9be-master.m3u8https://video.igem.org/videos/embed/q8BWiXTythjiEpDBJ79dm811908752025-08-12T19:42:14.664ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nbBBkkmbu945darAPvQu1khttps://video.igem.org/lazy-static/thumbnails/2e8ad757-eb63-40d1-90f1-1e3e6ae1e546.jpgUBC-Vancouver: meduCA (2025) - Project Promotion [English]**Title:** meduCA **Description:** UBC Vancouver is excited to present meduCA: Microbes enabling decarbonized-urbanization via Carbonic Anhydrase. [Official Page](https://teams.igem.org/5784)https://static.igem.org/peertube/streaming-playlists/hls/ab8b4b64-c22e-45bf-85c5-1bd509ad6eb3/a3748ed3-39d4-4b18-b34e-f2dc9f2f7096-master.m3u8https://video.igem.org/videos/embed/nbBBkkmbu945darAPvQu1k9801322025-08-12T20:02:47.496ZYES2025 Project PromotionsNOhttps://video.igem.org/w/5e2N2g1suWx4X2GAVnaQR6https://video.igem.org/lazy-static/thumbnails/10872cfa-b610-430b-a3fa-00123421337f.jpgSMU-Union-China: FluBlockers： Engineered Probiotics for Proactive Influenza Defense (2025) - Proj...**Title:** FluBlockers： Engineered Probiotics for Proactive Influenza Defense **Description:** Challenge: Influenza A virus (IAV), with its high mutability and cross-species transmission, causes recurrent pandemics. Current vaccines and antivirals face limitations like short-lived protection, viral escape, and resistance. Solution: We engineer the nasal probiotic Lactobacillus rhamnosus (LGG) into a synthetic biology platform for influenza prevention. This engineered strain features: 1. Closed-Loop Defense: Upon sensing IAV, it triggers a cascade response leading to virus neutralization. 2. Dual Biosafety: ①Environmental Containment: Rapid self-destruction upon unintended leakage. ②User Control: Controllable intervention termination for clinical safety. Impact: This pioneering strategy offers a novel, synthetic biology-driven approach for influenza control with significant public health potential. [Wiki](https://2025.igem.wiki/smu-union-china) | [Official Page](https://teams.igem.org/5840)https://static.igem.org/peertube/streaming-playlists/hls/22365434-16cf-41e8-b86c-47c15d354d37/f2893951-cb2f-4825-baee-7bb18743c915-master.m3u8https://video.igem.org/videos/embed/5e2N2g1suWx4X2GAVnaQR612101032025-08-12T19:59:38.588ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tkMu9qA4DgMsRUTAkp4mQghttps://video.igem.org/lazy-static/thumbnails/c0ece565-7738-49f6-b2da-1290226fc172.jpgNJTech-China: One-Cell Monodrama:Synchronized synthesis of cadaverine-succinate ... (2025) - Proj...**Title:** One-Cell Monodrama:Synchronized synthesis of cadaverine-succinate for bio-based polyamide 54 in one E. coli cell **Description:** Nylon (Polyamide，PA) is a widely used polymer in daily life. With the rise of the bioeconomy, developing bio-based nylon has become a hot topic.Through research, we found that that short-chain fully bio-based nylons like PA54 remain in the research and development stage with no commercial applications yet. PA54 is polymerized from cadaverine and succinate. Conventional biosynthesis requires two separate bacterial strains to produce these precursors, leading to complex processes, excessive acid/base consumption, and high salt waste generation. To overcome these limitations, we engineered a more efficient and eco-friendly synthesis pathway: Building upon lysine-producing strains, we created a cell factory that synchronously synthesizes cadaverine and succinate under anaerobic conditions.This system not only utilizes CO₂ released during cadaverine synthesis for succinate production but also leverages the distinct acidity/alkalinity of both compounds to achieve intrinsic acid-base self-balancing. We are striving to leverage the power of synthetic biology to provide a brand-new solution for the sustainable development of the nylon industry. [Wiki](https://2025.igem.wiki/njtech-china) | [Official Page](https://teams.igem.org/5881)https://static.igem.org/peertube/streaming-playlists/hls/dd69e820-098c-4b68-9d01-ae64ac482187/2f50899a-a0a6-4b44-a534-d9ef0bca4161-master.m3u8https://video.igem.org/videos/embed/tkMu9qA4DgMsRUTAkp4mQg1080272025-08-12T20:13:34.725ZYES2025 Project PromotionsNOhttps://video.igem.org/w/kzkhguB78HJCLktrJZDefWhttps://video.igem.org/lazy-static/thumbnails/7019d61c-13d1-447d-b40f-dd8c8a2bb2f4.jpgScience Tokyo: Xylego-E.coli for treating IBD (2025) - Project Promotion [English]**Title:** Xylego-E.coli for treating IBD **Description:** Xylego is a new treatment system for inflammatory bowel disease (IBD) that aims to break the "vicious cycle of inflammation" and improve treatment adherence. IBD is characterized by chronic gut inflammation, and existing treatments are often complicated by medication non-adherence and the ongoing cycle of inflammation and tissue damage. [Wiki](https://2025.igem.wiki/science-tokyo) | [Official Page](https://teams.igem.org/5631)https://static.igem.org/peertube/streaming-playlists/hls/9e850f9b-15bb-43e5-bc9f-dc4d4f925d8e/496dc30d-1e4c-44ab-9979-6e06f320ed0d-master.m3u8https://video.igem.org/videos/embed/kzkhguB78HJCLktrJZDefW121092025-08-12T20:15:05.481ZYES2025 Project PromotionsNOhttps://video.igem.org/w/8kZtJY574XpN3nRQmdQHaghttps://video.igem.org/lazy-static/thumbnails/b8e66f86-d660-4616-97a0-37aa4334d09e.jpgXJU-China: SILK (2025) - Project Promotion [English]**Title:** SILK **Description:** Xinjiang's unique topography, climatic characteristics and soil factors have contributed to its rich microbial resources, forming a large number of highly robust bacterial taxa and providing a natural gene pool. Meanwhile, we are concerned that the industrial fermentation system faces the problem of sensitivity to environmental fluctuations, and the conventional strains are prone to metabolic disorders during changes in temperature, ph, salinity and alkalinity, leading to a decrease in the stability of production and an increase in energy consumption. We isolated robust bacterial taxa from the cold and arid regions of Xinjiang, mined functional plasmids to search for genetic elements of resistance-related genes, and constructed a standardized expression regulation module containing the resistance elements to design a solution adapted to industrial strains, which provides a new pathway to reduce energy consumption in the industrial fermentation system and expands the library of synthetic biology elements for extreme environments. [Wiki](https://2025.igem.wiki/xju-china) | [Official Page](https://teams.igem.org/5543)https://static.igem.org/peertube/streaming-playlists/hls/3b7a8645-ee47-4e37-b196-7623ef42291d/26ba1698-6b9d-4a27-af5e-d1d7c4f0eed3-master.m3u8https://video.igem.org/videos/embed/8kZtJY574XpN3nRQmdQHag1220122025-08-12T20:33:15.831ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cHHh7yDoXqNjpkhXvuA7Fthttps://video.igem.org/lazy-static/thumbnails/b40aa66f-5866-4e2b-9c49-ff07869986c2.jpgSHSD: Improving Algae's CCM by Over-expressing LCIB (2025) - Project Promotion [English]**Title:** Improving Algae's CCM by Over-expressing LCIB **Description:** Global warming is becoming increasingly severe, and people from all around the world can feel its effects. Carbon dioxide, as a primary greenhouse gas, plays a central role in this issue. To help reduce atmospheric carbon dioxide levels, we are focusing on algae, specifically using the LCIB gene that influences the carbon dioxide concentration mechanisms of Chlamydomonas reinhardtii. We have designed plasmids carrying LCIB to genetically transform wild-type Chlamydomonas reinhardtii so that they overexpress this gene. By doing so, we aim to improve the Chlamydomonas reinhardtii's carbon dioxide concentration capability and, in the long term, cultivate a new strain that can be effectively used to mitigate global warming. [Wiki](https://2025.igem.wiki/shsd) | [Official Page](https://teams.igem.org/5732)https://static.igem.org/peertube/streaming-playlists/hls/5ee7754b-acd1-4335-94ee-a5c51192f2b9/995085a8-67c3-4ab2-bfce-e71074f30a4b-master.m3u8https://video.igem.org/videos/embed/cHHh7yDoXqNjpkhXvuA7Ft1220172025-08-12T20:41:59.711ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9q8PreqgYER9d1EFotzvtahttps://video.igem.org/lazy-static/thumbnails/192b0cb4-3d4b-4ba0-ac98-8b3b2acaa059.jpgBNDS-China: MeowTrack: A Probiotic Platform for Feline Gut Health (2025) - Project Promotion [Eng...**Title:** MeowTrack: A Probiotic Platform for Feline Gut Health **Description:** We engineered a probiotic for cat that senses eating and gut inflammation, releases anti-inflammatories, shreds hairballs, and logs gut activity with a CRISPR array. Paired with a smart litter box, it alerts owners before it’s too late. Cats can’t talk, but now, their poop will. [Wiki](https://2025.igem.wiki/bnds-china) | [Official Page](https://teams.igem.org/5605)https://static.igem.org/peertube/streaming-playlists/hls/4427c715-eb69-4331-96b1-e310c24f6193/9124454e-266d-4b6e-b1b1-12e9895c54ff-master.m3u8https://video.igem.org/videos/embed/9q8PreqgYER9d1EFotzvta1190712025-08-12T20:47:08.067ZYES2025 Project PromotionsNOhttps://video.igem.org/w/piEjXfNbbT4JpuWiWbYYyEhttps://video.igem.org/lazy-static/thumbnails/228fe233-9fcb-42b3-8f99-6ce5e68617b4.jpgNYC-Empire-State: iGEM_Promotion_Video (2025) - Project Promotion [English]**Title:** iGEM_Promotion_Video **Description:** At Villa Verde, single hopefuls look for love in a cage of drama. Fusarium, known for his toxic past, eyes lettuce, but NYC-Empire-State's engineered E. coli wants to give lettuce the care they deserve. [Official Page](https://teams.igem.org/5814)https://static.igem.org/peertube/streaming-playlists/hls/bcb973f6-925f-44f6-8624-03f92efb15a6/2a774138-f8b8-469a-a1e7-450a7b6f5f08-master.m3u8https://video.igem.org/videos/embed/piEjXfNbbT4JpuWiWbYYyE1180652025-08-12T20:48:28.005ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rCtGe5jaJckcKi5rTNzFv8https://video.igem.org/lazy-static/thumbnails/3be18380-af65-477d-953c-acfcd307aca0.jpgTU-Dresden: TRAPS - Targeted RNA Activated Phase Separation (2025) - Project Promotion [English]**Title:** TRAPS - Targeted RNA Activated Phase Separation **Description:** We are TRAPS! The iGEM team of the TU Dresden for 2025. Here, some of our friendly team member will introduce our iGEM project, where we are creating an RNA sensing platform for advancing the young field of RNA research. [Wiki](https://2025.igem.wiki/tu-dresden) | [Official Page](https://teams.igem.org/5690)https://static.igem.org/peertube/streaming-playlists/hls/cf8c4f18-bca6-49fa-8dca-c6de2811d73d/ed78b048-b064-425a-bf11-b7250bb65536-master.m3u8https://video.igem.org/videos/embed/rCtGe5jaJckcKi5rTNzFv81210782025-08-12T20:50:17.501ZYES2025 Project PromotionsNOhttps://video.igem.org/w/fjkPXTtos6xDykfxdriUiXhttps://video.igem.org/lazy-static/thumbnails/5273966e-b960-4d3a-9343-a09b2f04f637.jpgNJTECH-CHINA-A: E. coli expresses CecB for use in pet antibacterial dressings (2025) - Project Pr...**Title:** E. coli expresses CecB for use in pet antibacterial dressings **Description:** Our team is dedicated to developing pet antibacterial dressings through innovative solutions to address the issue of high pet medication costs: employing a dual strategy of "antibacterial peptide + protection system". This solution utilizes tannic acid B as the core antibacterial peptide - a natural bactericide derived from insects. It combines positively charged amino acids with the bacterial outer membrane, utilizing the α-helix structure to penetrate the cell membrane and disrupt its integrity. We have optimized its sequence through molecular docking and kinetic simulation to enhance the cutting efficiency. [Wiki](https://2025.igem.wiki/njtech-china-a) | [Official Page](https://teams.igem.org/5809)https://static.igem.org/peertube/streaming-playlists/hls/73ef8c42-fa28-496c-ab42-44bbeb31f9d9/83188bdd-cd5e-48df-89ca-567ebb0ed0f1-master.m3u8https://video.igem.org/videos/embed/fjkPXTtos6xDykfxdriUiX1200492025-08-12T21:18:37.789ZYES2025 Project PromotionsNOhttps://video.igem.org/w/d6keZv3uM5zYM3eVEKtjVKhttps://video.igem.org/lazy-static/thumbnails/a61b8a63-1aac-4ab5-aa3e-6c44820d53d0.jpgHKSSC: The missing piece of eczema treatment: Filaggrin (2025) - Project Promotion [English]**Title:** The missing piece of eczema treatment: Filaggrin **Description:** Eczema affects 3 in 10 children worldwide, causing relentless itching, swelling, and inflamed skin. Current treatments like topical steroids offer only temporary relief with harmful long-term risks. The root cause? A filaggrin (FLG) gene mutation that weakens the skin barrier, allowing allergens to trigger inflammation. Our groundbreaking solution combines artificial FLG to repair the skin barrier and jojoba oil to reduce inflammation—offering a safe, sustainable, and long-lasting treatment for eczema sufferers. Finally, we scratch this itch—for good. [Wiki](https://2025.igem.wiki/hkssc) | [Official Page](https://teams.igem.org/5613)https://static.igem.org/peertube/streaming-playlists/hls/61ec3d97-f198-427d-aff4-d5a87d46121d/da37687c-102b-400b-a3aa-1d4ec94fe679-master.m3u8https://video.igem.org/videos/embed/d6keZv3uM5zYM3eVEKtjVK1030302025-08-12T20:54:47.280ZYES2025 Project PromotionsNOhttps://video.igem.org/w/64PpLWy2z1NMNPYt7FMDvMhttps://video.igem.org/lazy-static/thumbnails/0df37129-21ba-431e-a15a-bba9f5ce194e.jpgZEOLYM: CRISPR-AptaSense: Rapid Point-of-Care Cervical Cancer Detection (2025) - Project Promotio...**Title:** CRISPR-AptaSense: Rapid Point-of-Care Cervical Cancer Detection **Description:** We present ​CRISPR-AptaSense, an innovative biosensor leveraging synthetic biology to revolutionize early cervical cancer screening. Our system synergizes ​DNA aptamers​ (engineered as high-affinity "molecular locks") with ​CRISPR-Cas13​ trans-cleavage activity for ultrasensitive biomarker detection. When a single drop of blood containing cancer biomarkers binds the aptamer, it triggers a cascade: transcription of a ​signal RNA​ activates Cas13, which cleaves a ​quenched fluorescent reporter​ to emit visible light—enabling results within a short time​ without lab equipment. Designed for accessibility, this low-cost platform addresses critical gaps in global healthcare, particularly in resource-limited regions where traditional HPV tests face delays (>3 days) and high costs. By catching cervical cancer at its most treatable stage, we aim to reduce reliance on invasive therapies and empower women worldwide with equitable diagnostics. Our mission: "Catch cancer before it catches you." [Wiki](https://2025.igem.wiki/zeolym) | [Official Page](https://teams.igem.org/5987)https://static.igem.org/peertube/streaming-playlists/hls/2906245a-7c5d-4f64-8450-854d44a138eb/badd4443-5b58-4376-b43f-1a443451d86e-master.m3u8https://video.igem.org/videos/embed/64PpLWy2z1NMNPYt7FMDvM1200222025-08-12T21:12:29.708ZYES2025 Project PromotionsNOhttps://video.igem.org/w/r4ZMhyscua4GHy4m6fxpEJhttps://video.igem.org/lazy-static/thumbnails/47c23e9c-cb89-44c0-9c34-a0f61ffecfad.jpgMunich: InkSight (2025) - Project Promotion [English]**Title:** InkSight **Description:** What if tattoos could be more that just an artistic expression? This tattoo speaks for your body revealing what is happening below the surface. InkSight acts as an optical biosensor capable of detecting biomarkers in the interstitial fluid, triggering upon detection, a signalling cascade. This will lead to a contrast change, letting the patient know that there are elevated biomarker levels in their system. This is InkSight, the art of turning cells into sensors. [Wiki](https://2025.igem.wiki/munich) | [Official Page](https://teams.igem.org/5544)https://static.igem.org/peertube/streaming-playlists/hls/cb034e75-b339-451d-a78c-e6027b35935a/40e03172-3f36-4163-85a2-50993dceab7d-master.m3u8https://video.igem.org/videos/embed/r4ZMhyscua4GHy4m6fxpEJ1130892025-08-12T21:19:26.332ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6dfv85NNutcLS1ZayiFkQLhttps://video.igem.org/lazy-static/thumbnails/4646bb07-f9ef-47cd-83fc-7905fd74b749.jpgMichigan: Magnolyse Therapeutic Platform (2025) - Project Promotion [English]**Title:** Magnolyse Therapeutic Platform **Description:** Promotional video for team Michigan 2025. Magnolyse is a bacteria-based therapeutic platform targeting ovarian cancer. [Wiki](https://2025.igem.wiki/michigan) | [Official Page](https://teams.igem.org/5786)https://static.igem.org/peertube/streaming-playlists/hls/2a338e47-991b-4784-8ccb-a49df0a00da0/46210d8d-6edc-4c1a-8b7e-b537482f16fb-master.m3u8https://video.igem.org/videos/embed/6dfv85NNutcLS1ZayiFkQL1220172025-08-12T21:20:35.610ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ohn1K7S68xbH9ikGU2Hxgahttps://video.igem.org/lazy-static/thumbnails/9b22946f-4cff-4fc8-837b-82fc427fdd65.jpgLYON: The PFAS Crisis (2025) - Project Promotion [English]**Title:** The PFAS Crisis **Description:** PFAS are environmental pollutants that we found nearly everywhere on the planet. Also called "forever chemicals", they never break down and end up in our bodies. But what exactly are PFAS ? What's the problem with them ? This video will answer your questions, as well as introducing our team's bioremediation solution to the PFAS crisis. [Wiki](https://2025.igem.wiki/lyon) | [Official Page](https://teams.igem.org/5551)https://static.igem.org/peertube/streaming-playlists/hls/b471e683-ce5c-4616-a626-3ba1044dc343/92d3fe87-64ea-4aba-9f1b-1db8e29cc979-master.m3u8https://video.igem.org/videos/embed/ohn1K7S68xbH9ikGU2Hxga1230632025-08-12T21:25:28.225ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gKxbwazKrsPmP9XttE5XXMhttps://video.igem.org/lazy-static/thumbnails/a5554218-7488-4945-91bb-bb0297aca81f.jpgTec-Chihuahua: Phasea - From field to table (2025) - Project Promotion [English]**Title:** Phasea - From field to table **Description:** Beans feed over 300 million people worldwide, but anthracnose a fungal disease caused by Colletotrichum Lindemuthianum can destroy up to 100% of bean yields, in poorly managed conditions. Phasea is a biofungicide combining three antifungal peptides to inhibit fungal growth with specificity, safety, and environmental compatibility, protecting crops, enhancing yields, and supporting sustainable agriculture. [Wiki](https://2025.igem.wiki/tec-chihuahua) | [Official Page](https://teams.igem.org/5718)https://static.igem.org/peertube/streaming-playlists/hls/7f8d4739-54ae-4188-ae86-0a1cb1f2e07f/0708a70d-c599-4255-8f9b-a91861c764f3-master.m3u8https://video.igem.org/videos/embed/gKxbwazKrsPmP9XttE5XXM12201652025-08-12T21:28:31.046ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qNtTqda7VBdhJVgAEJQeKVhttps://video.igem.org/lazy-static/thumbnails/951978ba-055b-47d3-a348-194f6663e740.jpgLZU-GANSU: Oral Health Protection: From Bacteria to Dental Caries (2025) - Project Promotion [Eng...**Title:** Oral Health Protection: From Bacteria to Dental Caries **Description:** This video describes the background and solution of our project. Dental caries is caused by plaque biofilms forming on the tooth surface, secreting acidic substances, and damaging tooth tissue. Streptococcus mutans is the primary pathogen of dental caries. We designed an engineered Lactobacillus that can respond to the quorum sensing signals of Streptococcus mutans, expressing antimicrobial substances and fluorescent proteins to monitor and remove the biofilm. [Wiki](https://2025.igem.wiki/lzu-gansu) | [Official Page](https://teams.igem.org/5812)https://static.igem.org/peertube/streaming-playlists/hls/c8d8ba18-1aab-467e-8fab-128e4101d1a7/0ed96d4f-452e-4501-b099-9c0eb6b1d41b-master.m3u8https://video.igem.org/videos/embed/qNtTqda7VBdhJVgAEJQeKV1220192025-08-12T21:34:04.700ZYES2025 Project PromotionsNOhttps://video.igem.org/w/pjfxm44DJtD8TRevEZpLXuhttps://video.igem.org/lazy-static/thumbnails/71613b0c-fd42-4b15-a3e7-507165eb5768.jpgGzhmu-China: Light the Way to Pain-Free Healing (2025) - Project Promotion [English]**Title:** Light the Way to Pain-Free Healing **Description:** This video briefly introduces the motivation of our project, as well as the related mechanisms, experimental procedures and future prospects [Official Page](https://teams.igem.org/6020)https://static.igem.org/peertube/streaming-playlists/hls/bcce89b4-3f3d-4871-aa21-f08deb72576a/d37ce9b0-6ab6-457f-a1c5-d0e34bbcd108-master.m3u8https://video.igem.org/videos/embed/pjfxm44DJtD8TRevEZpLXu123092025-08-12T21:59:28.033ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qB3omGcVDSG4UktKrCi4eihttps://video.igem.org/lazy-static/thumbnails/327c0685-8834-4092-87d8-895682c031d6.jpgAachen: NCLOSE: Reduction of Nitrate Pollution through Microbial Biopolymer Prod... (2025) - Proj...**Title:** NCLOSE: Reduction of Nitrate Pollution through Microbial Biopolymer Production in Manure **Description:** NCLOSE aims to reduce global nitrate pollution by enabling the in situ production of a special biopolymer by an engineered microorganism in manure. This biopolymer binds free ammonium ions, thereby stabilizing nitrogen in the soil and reducing the rate of nitrate leaching. [Wiki](https://2025.igem.wiki/aachen) | [Official Page](https://teams.igem.org/5587)https://static.igem.org/peertube/streaming-playlists/hls/c73fd473-321f-459b-bb4c-31680adda937/a953404b-dba5-444d-9ef3-799b2bac874e-master.m3u8https://video.igem.org/videos/embed/qB3omGcVDSG4UktKrCi4ei12302852025-08-12T22:19:33.765ZYES2025 Project PromotionsNOhttps://video.igem.org/w/33GkqnwqHJQTNUEVmdrxBqhttps://video.igem.org/lazy-static/thumbnails/77ab3e75-296d-4bc3-96de-061ccada5728.jpgUAlberta: AshBloom's Innovative Fire Fighting Solution (2025) - Project Promotion [English]**Title:** AshBloom's Innovative Fire Fighting Solution **Description:** In an era where everywhere in this world suffers from wildfires, AshBloom, based in Alberta, Canada, offers a new paradigm. We are engineering a bio-based, biodegradable fire-suppressant foam built on microbial rhamnolipids, a natural surfactant produced through sustainable fermentation. We are bridging the gap between emergency response and ecological restoration, offering fire crews and forest managers a tool that works with nature, not against it. [Wiki](https://2025.igem.wiki/ualberta) | [Official Page](https://teams.igem.org/5798)https://static.igem.org/peertube/streaming-playlists/hls/10929f40-cff4-4d0b-88c4-ff7aafc4a0ca/85552bcb-5da6-4f78-9e98-349b0647cc91-master.m3u8https://video.igem.org/videos/embed/33GkqnwqHJQTNUEVmdrxBq1235332025-08-12T22:05:32.821ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mbKcu4MdoSUE37B8iwAeKxhttps://video.igem.org/lazy-static/thumbnails/f74f5198-6e0c-4c42-aa34-7550ced09f15.jpgIIT-Bombay: AureoLyze (2025) - Project Promotion [English]**Title:** AureoLyze **Description:** Aureolyze – IIT Bombay Staphylococcus aureus is a major contributor to chronic infections due to Genetic Antibiotic Resistance which usually gets addressed by new antibiotics but the the antibiotic or a solution it has not developed resistance against becomes severely ineffective due their thick and Robust Biofilm Matrix. Our project harnesses the biofilm-degrading enzyme ESP protease having high specifity to disrupt these biofilms while minimizing off-target damage to human tissues. Through synthetic biology, we optimize ESP production, secretion, and substrate specificity through protein engineering, enabling safer and more effective biofilm clearance. Ultimately our project addressing antimicrobial resistance (AMR) at its root — the biofilm shield. [Wiki](https://2025.igem.wiki/iit-bombay) | [Official Page](https://teams.igem.org/5633)https://static.igem.org/peertube/streaming-playlists/hls/a376d526-0dfb-4d87-914d-c446481db2c1/5ae21df6-3aa3-4695-a6c4-1e308c372d64-master.m3u8https://video.igem.org/videos/embed/mbKcu4MdoSUE37B8iwAeKx1180192025-08-12T22:50:32.401ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nVCpd5QSTRRdpRoMwbnxUKhttps://video.igem.org/lazy-static/thumbnails/be05a526-8d9b-482b-96d9-e6160bab68af.jpgUMaryland: RGBio (2025) - Project Promotion [English]**Title:** RGBio **Description:** RGBio uses optogenetic technology to direct enzymatic pathways in E. coli, producing different bioplastic monomers in response to red, green, or blue light. Using different light intensities, we can modulate the properties of PHAs, a common bioplastic group. Ultimately, we aim to create a modular system by integrating the optogenetic switches into the genome of E. coli so that scientists can apply this technology to different projects. [Wiki](https://2025.igem.wiki/umaryland) | [Official Page](https://teams.igem.org/5586)https://static.igem.org/peertube/streaming-playlists/hls/b18cc399-2205-4026-ac16-83c8acda2337/2476088f-6ff9-411f-9c8b-ee4c7ad7d913-master.m3u8https://video.igem.org/videos/embed/nVCpd5QSTRRdpRoMwbnxUK1220212025-08-12T23:45:24.826ZYES2025 Project PromotionsNOhttps://video.igem.org/w/kY7L8NCTaLMYoUsTj7c2nAhttps://video.igem.org/lazy-static/thumbnails/61424177-f0cc-4026-8d12-232941357b01.jpgWashington: ExAway (2025) - Project Promotion [English]**Title:** ExAway **Description:** The project promo video from WA iGEM 2025 [Wiki](https://2025.igem.wiki/washington) | [Official Page](https://teams.igem.org/5660)https://static.igem.org/peertube/streaming-playlists/hls/a1b373c5-d563-4cd8-90fc-d65919f4cd20/a5335a54-8467-480d-ac1c-98383460406e-master.m3u8https://video.igem.org/videos/embed/kY7L8NCTaLMYoUsTj7c2nA1140182025-08-13T00:01:55.108ZYES2025 Project PromotionsNOhttps://video.igem.org/w/biyyzJQaha54wmo8qCG6Mhhttps://video.igem.org/lazy-static/thumbnails/db0edb3d-4a7e-45d0-b807-e363bc41a7e0.jpgBUAP-Puebla: SurFactory: Improving protein production [English] (2025) - Project Promotion [English]**Title:** SurFactory: Improving protein production [English] **Description:** At present, most surfactants are made from animal origin, which limits its safety and mass scale production. Our synthetic biology tool aims to revolutionize the treatment for lung diseases by designing and producing an optimized pulmonary surfactant using Pichia pastoris X-33 as an expression system for the production of the recombinant surfactant protein B (SP-B), a key molecule in reducing lung surface tension and stabilizing alveolar lipid membranes, both essential for lung function [Wiki](https://2025.igem.wiki/buap-puebla) | [Official Page](https://teams.igem.org/5575)https://static.igem.org/peertube/streaming-playlists/hls/536f18fb-3a07-4006-84a5-f30251aaae36/e701cf13-c367-4a9b-b72a-2b1edb2d89aa-master.m3u8https://video.igem.org/videos/embed/biyyzJQaha54wmo8qCG6Mh1130652025-08-13T00:05:32.740ZYES2025 Project PromotionsNOhttps://video.igem.org/w/j8LWaVwUENoTiAUPEzTsbThttps://video.igem.org/lazy-static/thumbnails/22493cdd-7e94-44cc-b79f-ec56d0e70f10.jpgIISc-Bengaluru: ARGUS-2440: Tackling Nitrate Leaching at the Root (2025) - Project Promotion [Eng...**Title:** ARGUS-2440: Tackling Nitrate Leaching at the Root **Description:** Excess nitrate ions in soil leach away due to irrigation, rainfall and weathering. They enter water bodies and prove detrimental to organisms relying on these freshwater sources. We propose to engineer a bacterium that can convert excess nitrate in the rhizosphere to ammonium, a molecule that is retained better in soil and taken up more efficiently by plants. These bacteria will be applied as a biofilm around plant roots, conferring additional resistance to drought, infection, and adverse environmental conditions. This model not only reduces the downstream effects of nitrate leaching, but also benefits crops by maintaining soil nitrogen content and retaining nutrients in an energetically favorable state for plant consumption. Our project thus provides a comprehensive agriculturally-motivated bioremediation solution against nitrate pollution. [Official Page](https://teams.igem.org/6006)https://static.igem.org/peertube/streaming-playlists/hls/92da64d1-7c39-4cc7-abe6-5507dc6f52a7/95a1059b-b9c1-4bc8-ab6e-ca66ec0cff5e-master.m3u8https://video.igem.org/videos/embed/j8LWaVwUENoTiAUPEzTsbT1230802025-08-13T00:34:13.166ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vjaWXtKUHV3gSmucXBfpS5https://video.igem.org/lazy-static/thumbnails/fa4d28e9-9e2f-4de9-b3da-41677ba71572.jpgTJI-Seoul: Structure Modification of MHC Class I Protein for Enhanced Antigen De... (2025) - Proj...**Title:** Structure Modification of MHC Class I Protein for Enhanced Antigen Delivery **Description:** Structure Modification of MHC Class I Protein for Enhanced Antigen Delivery [Official Page](https://teams.igem.org/5909)https://static.igem.org/peertube/streaming-playlists/hls/ed628a14-d8d7-4998-a855-6a64cab12514/452c196f-c3f1-4f0c-ad88-5f8dad326dea-master.m3u8https://video.igem.org/videos/embed/vjaWXtKUHV3gSmucXBfpS51220262025-08-13T00:41:53.366ZYES2025 Project PromotionsNOhttps://video.igem.org/w/akA4reNRZXdNGmfzjb8SEchttps://video.igem.org/lazy-static/thumbnails/c4a46c7f-7b67-4f67-aebc-52fece37bc55.jpgCity-of-London-UK: COL-UK-25: Shining a LAMP on Cryptosporidiosis (2025) - Project Promotion [Eng...**Title:** COL-UK-25: Shining a LAMP on Cryptosporidiosis **Description:** Cryptosporidiosis is a life-threatening parasitic disease that can take weeks to diagnose using current tools. This video explains the urgency for a faster, more accessible testing method and how our approach could transform early detection. [Wiki](https://2025.igem.wiki/city-of-london-uk) | [Official Page](https://teams.igem.org/5602)https://static.igem.org/peertube/streaming-playlists/hls/4b9e5e8b-5d49-420f-9b23-1cfb19ee85e7/77b4b2b8-b63e-4b36-8e9c-f2d5c8b78c54-master.m3u8https://video.igem.org/videos/embed/akA4reNRZXdNGmfzjb8SEc1225962025-08-13T00:40:59.193ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3g9yKt5tjMvh4KF6PXf9jThttps://video.igem.org/lazy-static/thumbnails/fe9c926f-28a6-49e7-983c-c69f1fe99024.jpgJLU-NBBMS: BiOilRo-Oily By-products to Bioactive Substance: Sustainable Rare Gin... (2025) - Proj...**Title:** BiOilRo-Oily By-products to Bioactive Substance: Sustainable Rare Ginsenosides Ro Synthesis Based on Saccharomyces cerevisiae **Description:** Ginsenoside Ro is a rare oleanolic acid-type saponin with demonstrated antioxidant, anti-tumor, and anti-inflammatory properties. However, traditional extraction from ginseng requires years of cultivation and yields only trace amounts of Ro. A large amount of by-products are generated in the production process of industrial oils—crude glycerol and free fatty acids—which are underutilized and potentially harmful to the environment and biological systems. Our project employs a four-pronged strategy to optimize the biosynthetic pathway: 1）Targeting the key enzymes of MVA to the peroxisome to enhance the transport of fatty acid-derived acetyl-CoA into the cytoplasm. 2）Introducing the optimized catalytic system into yeast to convert glycerol and fatty acids into oleanolic acid, the precursor of ginsenoside Ro. 3）Screening and engineering glycosyltransferases to ensure site-specific glycosylation of the Ro precursor oleanolic acid. 4）Overexpressing key enzymes in the glycerol gluconeogenesis and UDPG synthesis pathways to increase carbon source supply; knocking out ginsenoside Ro-specific hydrolase, and inhibiting heterologous pathways to increase Ro production. [Wiki](https://2025.igem.wiki/jlu-nbbms) | [Official Page](https://teams.igem.org/5564)https://static.igem.org/peertube/streaming-playlists/hls/124fb646-f47f-4f4c-ba1f-6a0e35d1ec27/f72cf47a-179c-438b-b58d-4378073759c1-master.m3u8https://video.igem.org/videos/embed/3g9yKt5tjMvh4KF6PXf9jT12351112025-08-13T01:11:28.185ZYES2025 Project PromotionsNOhttps://video.igem.org/w/f56hAPqgJDK9SKzSq2tGZGhttps://video.igem.org/lazy-static/thumbnails/21f30377-b0d1-4ff9-b5c3-fe66eea1d17c.jpgBIT-China: FABRIC: Color the Future (2025) - Project Promotion [English]**Title:** FABRIC: Color the Future **Description:** Step into the future of fashion with FABRIC—an in-situ dyed, biodegradable fabric made with biosynthesized natural pigments and our trichromatic light-responsive technology. 🚀✨ From lab benches to streetwear, we’re brewing color with engineered microbes, saving water, cutting waste, and making fashion as bright as our future. 🌱👕 [Wiki](https://2025.igem.wiki/bit-china) | [Official Page](https://teams.igem.org/5866)https://static.igem.org/peertube/streaming-playlists/hls/71f22c8f-7238-4854-8e0e-47af5b31aafa/548c4813-05d5-4617-8020-34565214d7ef-master.m3u8https://video.igem.org/videos/embed/f56hAPqgJDK9SKzSq2tGZG1210412025-08-13T01:16:23.335ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eg9GPYdcRfMms1z1SqiZ1whttps://video.igem.org/lazy-static/thumbnails/c346ba96-e47c-4eb4-bb2d-4f1c4bcf54ea.jpgRio-UFRJ-Brazil: The Powerful Tests - OsirisRioUFRJ (2025) - Project Promotion [English]**Title:** The Powerful Tests - OsirisRioUFRJ **Description:** In 2025, Dengue, Zika, and Chikungunya collide, creating a viral chaos where symptoms are the same and tests fail. But in the middle of the storm, our iGEM team rises to the challenge. Using synthetic biology, we designed three multi-epitope proteins — DME, ZME, and ChickMe, each built for specific recognition and minimal cross-reaction. One protein. One virus. Maximum precision. This is our mission at the iGEM stage: turning innovation into impact, and science into powerful tools for a safer world. [Wiki](https://2025.igem.wiki/rio-ufrj-brazil) | [Official Page](https://teams.igem.org/5813)https://static.igem.org/peertube/streaming-playlists/hls/6b6452b7-32ed-48d6-8e1e-4566b5c6b30a/f5acc600-1f10-4f45-867b-e4c132eb92a3-master.m3u8https://video.igem.org/videos/embed/eg9GPYdcRfMms1z1SqiZ1w1210442025-08-13T01:39:33.815ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7peuiZRdqXridus1kWcr4dhttps://video.igem.org/lazy-static/thumbnails/a4369fb8-ef53-4896-9eac-c8f67b56b329.jpgBNU-China: V-CHARGEs: The Enzyme Avengers Assemble! (2025) - Project Promotion [English]**Title:** V-CHARGEs: The Enzyme Avengers Assemble! **Description:** Join SlPPK, a determined enzyme from Japan’s hydrothermal vents, as it transforms from a fragile catalyst into the heart of the V-CHARGEs squad. With Virus-Like Particles (VLPs) as its allies, SlPPK overcomes harsh conditions to lead a revolutionary multi-enzyme team. This concise tale celebrates the V-CHARGEs system’s power, showcasing SlPPK’s heroic rise through teamwork and innovation to drive sustainable bio-manufacturing. [Wiki](https://2025.igem.wiki/bnu-china) | [Official Page](https://teams.igem.org/5872)https://static.igem.org/peertube/streaming-playlists/hls/33d54042-560e-4ed5-ade7-077b0c80e636/258e8702-1116-49bc-b3b4-2347aabaf785-master.m3u8https://video.igem.org/videos/embed/7peuiZRdqXridus1kWcr4d1230552025-08-13T01:43:48.560ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7vy3cKtbbBnJMa91xTBNqthttps://video.igem.org/lazy-static/thumbnails/740d7928-ebd9-440b-8515-7bd7c69e347a.jpgHUBU-WuHan: A New Beginning (2025) - Project Promotion [English]**Title:** A New Beginning **Description:** This is a short video produced by the students through division of labor and collaboration. It mainly introduces the reasons why we started the project, how we found like-minded partners, some small brainstorming sessions in the early stage of the project, and how we gathered great strength for our small dreams. [Official Page](https://teams.igem.org/5621)https://static.igem.org/peertube/streaming-playlists/hls/34b72538-87b1-4605-a616-9cffd5c49d0b/a7de1776-f2d2-4362-901c-d80145de1815-master.m3u8https://video.igem.org/videos/embed/7vy3cKtbbBnJMa91xTBNqt1230392025-08-13T01:56:40.664ZYES2025 Project PromotionsNOhttps://video.igem.org/w/jSak6yXg4xP2dmhp3ZXcCshttps://video.igem.org/lazy-static/thumbnails/4bbb5629-4442-48df-be99-ee1b8dac417f.jpgBYU-Provo: TrackHers - Illuminating Early Pregnancy and Miscarriage (2025) - Project Promotion [E...**Title:** TrackHers - Illuminating Early Pregnancy and Miscarriage **Description:** Early miscarriage is often sudden and unexpected. It constitutes a very widespread and often overlooked medical challenge for women worldwide, leaving many to deal privately with emotional and physical damage. Maternal levels of progesterone are a key, underutilized indicator of the health of early pregnancies and miscarriages. Our goal is use synthetic biology to develop a wearable biosensor that could measure progesterone levels in real time. This novel technology would provide women with access to precious, timely information during early pregnancy and accelerate research on pregnancy and miscarriage. [Official Page](https://teams.igem.org/5705)https://static.igem.org/peertube/streaming-playlists/hls/98c56f08-ded6-497b-ba6b-608c5a30baf6/efc9ff47-aa33-4b17-9a2e-f04b30fe4d61-master.m3u8https://video.igem.org/videos/embed/jSak6yXg4xP2dmhp3ZXcCs1220352025-08-13T02:05:59.565ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1HTg2upjuJaWT6nteSq7Yzhttps://video.igem.org/lazy-static/thumbnails/7069f68b-61b8-4771-b149-0fcb89d588a6.jpgUNICAMP-Brazil: UNICAMP Pepcitrus: Peptides in defense of citrus (2025) - Project Promotion [Engl...**Title:** UNICAMP Pepcitrus: Peptides in defense of citrus **Description:** Did you know that oranges and citrus crops are in serious danger? But don't panic! There is still time to save them, and the solution may be closer than we think! In this video, you will learn about the Pepcitrus project, which combines science, innovation, and collaboration to change the fate of citrus fruits. Join the Unicamp-Brazil team on this journey to save not only the future of oranges, but also the future of those who depend on them! [Wiki](https://2025.igem.wiki/unicamp-brazil) | [Official Page](https://teams.igem.org/5560)https://static.igem.org/peertube/streaming-playlists/hls/05d91586-f0df-4c97-a5ab-b69a6bbfede9/94536143-b509-43ef-a2fc-a561c09b6c9f-master.m3u8https://video.igem.org/videos/embed/1HTg2upjuJaWT6nteSq7Yz11251432025-08-13T02:08:47.444ZYES2025 Project PromotionsNOhttps://video.igem.org/w/iVfAQ72xHJMv8AazRwQpnThttps://video.igem.org/lazy-static/thumbnails/aa5c268e-c255-4e51-9f8e-625b90718708.jpgRochester: PHAntom (2025) - Project Promotion [English]**Title:** PHAntom **Description:** With humanity's remarkable progress in aerospace, settlement on the Red Planet is only a matter of time. However, transporting materials across millions of miles becomes prohibitively costly, necessitating in-situ resource utilisation. Moreover, as we build upon another planet we need not forget our own; Earth is suffering from climate change and a growing plastic pollution crisis. The 2025 Rochester iGEM team's project, PHAntom, seeks to address both of these challenges with a system for CO2-based bioplastic and acetate production using engineered E. coli. The poly(3-hydroxybutyrate-co-3-hydroxyvalerate) — or PHBV — produced by PHAntom is a strong, flexible, and biodegradable PHA plastic, an invaluable material for both replacing petroleum-based synthetic plastics on Earth and manufacturing our future on Mars. [Wiki](https://2025.igem.wiki/rochester) | [Official Page](https://teams.igem.org/5571)https://static.igem.org/peertube/streaming-playlists/hls/911ac660-9c10-4a12-8e71-7a8b6b1866f1/85bd46b2-5612-467f-bfde-d0782352d715-master.m3u8https://video.igem.org/videos/embed/iVfAQ72xHJMv8AazRwQpnT1200632025-08-13T02:10:28.437ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vss7YZojjpFHnYyUXGpuYChttps://video.igem.org/lazy-static/thumbnails/822a45da-94fb-49f6-a3a3-d438ca5e66be.jpgBUAP-Puebla: SurFactory: Mejorando la producción de proteínas [ESPAÑOL] (2025) - Project Promotio...**Title:** SurFactory: Mejorando la producción de proteínas [ESPAÑOL] **Description:** Actualmente, la mayoría de los surfactantes son de origen animal, lo que limita su seguridad y su producción a gran escala. Nuestra herramienta de biología sintética busca revolucionar el tratamiento de las enfermedades pulmonares mediante el diseño y la producción de un surfactante pulmonar optimizado utilizando Pichia pastoris X-33 como sistema de expresión para la producción de la proteína surfactante B recombinante (SP-B), una molécula clave para reducir la tensión superficial pulmonar y estabilizar las membranas lipídicas alveolares, ambos esenciales para la función pulmonar. [Wiki](https://2025.igem.wiki/buap-puebla) | [Official Page](https://teams.igem.org/5575)https://static.igem.org/peertube/streaming-playlists/hls/ee8a74d8-0a06-49ff-a7a4-3876eb08613c/105e5a38-2456-495b-94c2-6b1ffe3b0015-master.m3u8https://video.igem.org/videos/embed/vss7YZojjpFHnYyUXGpuYC1130322025-08-13T02:11:19.825ZYES2025 Project PromotionsNOhttps://video.igem.org/w/8ME84VzjbTwMaFZZF8kvkQhttps://video.igem.org/lazy-static/thumbnails/9b056254-a0de-4908-86ed-b693b35c32fa.jpgSaltLakeCommColl11: SLCC LactoBruins: GlutaGuard, Engineering Lactobacillus to S... (2025) - Proj...**Title:** SLCC LactoBruins: GlutaGuard, Engineering Lactobacillus to Sense and Neutralize ROS **Description:** Title: GlutaGuard, Engineering Lactobacillus to Sense and Neutralize ROS (2025) Description: Polluted air is associated with urgent health risks, from asthma and ER visits to long-term damage caused by reactive oxygen species (ROS). These molecules accumulate at dangerous levels in Utah from thermal inversions, and possibly also from Great Salt Lake dust, which is under current investigation. Allow us to present GlutaGuard, a solution by the LactoBruins team that uses engineered Lactobacillus to detect ROS and release glutathione, a potent antioxidant, only when needed, reducing oxidative stress and protecting health from the inside out. Unlike low-bioavailability supplements, this targeted, on-demand approach is being developed to safeguard residents’ health while we find long-term solutions for protecting our air and preserving Utah’s natural beauty. [Wiki](https://2025.igem.wiki/saltlakecommcoll11) | [Official Page](https://teams.igem.org/5955)https://static.igem.org/peertube/streaming-playlists/hls/3f0fef06-dc4d-489b-b7a4-955d3cbc391a/6c007f13-caf5-4a3f-8067-36f5814c8a55-master.m3u8https://video.igem.org/videos/embed/8ME84VzjbTwMaFZZF8kvkQ1210332025-08-13T02:16:26.665ZYES2025 Project PromotionsNOhttps://video.igem.org/w/hUujKp2kGSa7GBYCkUBy85https://video.igem.org/lazy-static/thumbnails/35cadee5-740f-4e17-aa60-696f6e2af2b8.jpgProfuture-BJ: FluVERSAL - A Step Towards a Universal Influenza Vaccine (2025) - Project Promotion...**Title:** FluVERSAL - A Step Towards a Universal Influenza Vaccine **Description:** Influenza, commonly known as the flu, is an infectious disease caused by influenza viruses. The emergence of pandemic influenza and the viral subtypes responsible for these outbreaks are unpredictable. Each pandemic has exhibited differences in transmission patterns, disease severity, and mortality rates, making the prevention and treatment of influenza an increasingly important focus of research. In this year’s project, we used machine learning to identify a 16-amino-acid peptide that is highly conserved across multiple influenza strains. We fused this peptide to ferritin, which serves as a protective scaffold. Utilizing E. coli, we achieved one-step synthesis of a broad-spectrum influenza vaccine candidate. [Official Page](https://teams.igem.org/5971)https://static.igem.org/peertube/streaming-playlists/hls/88e65973-94a8-4b34-be0b-4212804e5bb2/deeaae2c-329e-4079-9d30-ea1da4b44f7f-master.m3u8https://video.igem.org/videos/embed/hUujKp2kGSa7GBYCkUBy851235512025-08-13T02:38:29.106ZYES2025 Project PromotionsNOhttps://video.igem.org/w/e4TnWschuMziBRwqcTQ9Wthttps://video.igem.org/lazy-static/thumbnails/eaae7720-d0b0-4a87-b46c-9c73fe24c2c7.jpgGeorgiaState-SWJTU: Lactolock: Novel engineered bacteria shields (2025) - Project Promotion [Engl...**Title:** Lactolock: Novel engineered bacteria shields **Description:** This project aims to engineer novel Nisin peptides with targeted antimicrobial activity against Streptococcus mutans—the primary cariogenic pathogen responsible for dental caries. Leveraging synthetic biology approaches, we seek to mitigate the cariogenic potential of S. mutans within the oral microbiome while preserving commensal microbiota integrity, thereby advancing precision strategies for oral health enhancement. [Wiki](https://2025.igem.wiki/georgiastate-swjtu) | [Official Page](https://teams.igem.org/5892)https://static.igem.org/peertube/streaming-playlists/hls/69d1b265-bbf6-48c0-b501-3e52f1cd1107/091c521b-3d5b-4026-96b1-e9a1c2052b33-master.m3u8https://video.igem.org/videos/embed/e4TnWschuMziBRwqcTQ9Wt1220192025-08-13T02:51:11.597ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rgo7JJcRa2vqZyptyHjiQahttps://video.igem.org/lazy-static/thumbnails/60af4561-9420-4b7d-bf96-e9cb87274110.jpgHK-PLKNPLC: Biomanufacturing new sweetener (2025) - Project Promotion [English]**Title:** Biomanufacturing new sweetener **Description:** Modify monellin into new sweetener and biomanufacture it [Official Page](https://teams.igem.org/5884)https://static.igem.org/peertube/streaming-playlists/hls/cc9a40ab-21ad-4e10-a199-a919b015e8ed/aaa642fa-df08-413f-a29e-40518c38338d-master.m3u8https://video.igem.org/videos/embed/rgo7JJcRa2vqZyptyHjiQa1160202025-08-13T02:53:51.998ZYES2025 Project PromotionsNOhttps://video.igem.org/w/jMuLfg4pDz3zaEXyPd7KZvhttps://video.igem.org/lazy-static/thumbnails/5d20a69b-decb-44dc-9ca2-f4bf172e283f.jpgULaval: [Fe]rocious deal (2025) - Project Promotion [English]**Title:** [Fe]rocious deal **Description:** Our aim is to target antibiotic-resistant bacteria using siderophores coupled to gold nanoparticules. The siderophore makes it possible to specifically target a species or a strand of pathological bacteria. The gold nanoparticules can be activated by infrared light to heat up and kill the bacteria. These complexes infiltrate the enemy : pathogenic bacteria. [Official Page](https://teams.igem.org/5653)https://static.igem.org/peertube/streaming-playlists/hls/981eb0f7-30ad-4175-8953-95641f0a91a3/565fe500-6a5f-4e95-85ee-34b4bae7cbf0-master.m3u8https://video.igem.org/videos/embed/jMuLfg4pDz3zaEXyPd7KZv1230202025-08-13T02:50:19.933ZYES2025 Project PromotionsNOhttps://video.igem.org/w/iamLhbYVEbagb3Y5683gh7https://video.igem.org/lazy-static/thumbnails/802ea23a-3ac1-4059-99f7-a2e0ea560702.jpgAlma: Com-bat-ing White-Nose Syndrome (2025) - Project Promotion [English]**Title:** Com-bat-ing White-Nose Syndrome **Description:** Alma College's i-GEM team presents our project "Com-bat-ing White-Nose Syndrome"! We aim to develop a serine protease inhibitor to halt the spread of white-nose syndrome and conserve bats in North America—and possibly all around the world! [Official Page](https://teams.igem.org/5648)https://static.igem.org/peertube/streaming-playlists/hls/8af9d8d9-9766-4e2f-98f3-354bb6c413a2/3ad9aefa-78df-4d45-889e-6d933647ccdd-master.m3u8https://video.igem.org/videos/embed/iamLhbYVEbagb3Y5683gh71050212025-08-13T03:00:02.331ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eWc5xqcUw9zKyfFoKoDy5ehttps://video.igem.org/lazy-static/thumbnails/961e8825-2f9b-4a9d-bfea-0a4b510796b7.jpgHNU-China: Pullomunch-An E. coli System for Combating Phenanthrene and Naphthale... (2025) - Proj...**Title:** Pullomunch-An E. coli System for Combating Phenanthrene and Naphthalene Pollution **Description:** PAHs exert persistent toxic effects on both humans and animals. Taking two relatively simple PAHs—naphthalene and phenanthrene—as examples, we aim to engineer Escherichia coli with the nah, phn, and rhl gene clusters from Pseudomonas and other species to establish a more efficient pathway for their degradation. [Official Page](https://teams.igem.org/5883)https://static.igem.org/peertube/streaming-playlists/hls/70d7cb1c-c54f-4651-85cf-a0a417e2737d/4bcbb531-6b44-46c1-b3f8-44379966b068-master.m3u8https://video.igem.org/videos/embed/eWc5xqcUw9zKyfFoKoDy5e1220302025-08-13T03:01:59.521ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2WDptSMkkYWYojqBKJV6kahttps://video.igem.org/lazy-static/thumbnails/4d53965c-f1de-478a-aced-81128c8de95d.jpgUFlorida: AI Designed Osteocalcin Binder (2025) - Project Promotion [English]**Title:** AI Designed Osteocalcin Binder **Description:** Astronauts can lose 1–2% of their bone density each month in space. At UF, we’re designing AI-created protein binders to detect early signs of bone loss—paving the way for future biosensors that could protect astronauts, improve osteoporosis care, and transform bone health on Earth and beyond. [Official Page](https://teams.igem.org/5969)https://static.igem.org/peertube/streaming-playlists/hls/0fba5a92-0419-4f47-bb8e-88c803616b93/e7468680-b9c6-450b-94b0-ff05abe7f440-master.m3u8https://video.igem.org/videos/embed/2WDptSMkkYWYojqBKJV6ka1160192025-08-13T03:09:42.177ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eMfksek7yWz24a2MucsQb7https://video.igem.org/lazy-static/thumbnails/74a25c5c-4abe-438d-972c-63fbcb759196.jpgMammothEdu-South: PHAntom Thalassic: Song of the sea - Plastic Reimagined (2025) - Project Promot...**Title:** PHAntom Thalassic: Song of the sea - Plastic Reimagined **Description:** The world of humans and mermaids once thrived beneath the waves — until 2035, when plastic choked the waters. Through synthetic biology in 2025, we’re turning this story around, making PHA accessible to replace plastics before the fable becomes our fate. [Wiki](https://2025.igem.wiki/mammothedu-south) | [Official Page](https://teams.igem.org/5776)https://static.igem.org/peertube/streaming-playlists/hls/6f981b52-3fe2-4897-a0b4-dd7b65d6d50a/4666210c-a5fa-4345-b080-2eea350a0aa7-master.m3u8https://video.igem.org/videos/embed/eMfksek7yWz24a2MucsQb71225412025-08-13T03:48:53.601ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ftXAA88yUL4qTJFhG128t2https://video.igem.org/lazy-static/thumbnails/b6c32ce5-0621-4bdc-9211-3174656ad169.jpgOhio State: OSU Team - Aptamer-Based Biosensor (2025) - Project Promotion [English]**Title:** OSU Team - Aptamer-Based Biosensor **Description:** Our 2025 iGEM project is developing a real-time biosensing platform to monitor sepsis treatment effectiveness by detecting the biomarker procalcitonin (PCT) directly from a patient’s bloodstream. Using engineered DNA aptamers—short strands that bind specifically to PCT—we aim to create a microfluidic device that continuously measures biomarker levels and delivers live data to clinicians. This technology could enable earlier interventions, guide antibiotic use more precisely, and improve outcomes for critically ill patients. [Wiki](https://2025.igem.wiki/ohio-state) | [Official Page](https://teams.igem.org/6000)https://static.igem.org/peertube/streaming-playlists/hls/75474916-68a9-4c19-b362-6cc34ccb6ac3/062bd00a-38b4-44d5-9e80-d63cb9f85fe1-master.m3u8https://video.igem.org/videos/embed/ftXAA88yUL4qTJFhG128t21190132025-08-13T04:00:03.734ZYES2025 Project PromotionsNOhttps://video.igem.org/w/hYXZ2Sxi1YjLX8LJf7Mvurhttps://video.igem.org/lazy-static/thumbnails/f46d5e4e-bdab-472f-ac72-4f1cc4fbd5c5.jpgNACIS SHANGHAI: CaroteneCraft: Synthetic Biology for Vision Protection (2025) - Project Promotion...**Title:** CaroteneCraft: Synthetic Biology for Vision Protection **Description:** Along with the computer usage expansion, teenager vision problems are worsening quickly, especially the dry eye and night blind problems among China high school students. Vitamin A deficiency, driven by insufficient dietary β-carotene intake, is a major reason. To produce β-carotene more efficiently, we NACIS-SHANGHAI engineer Saccharomyces cerevisiae for de novo biosynthesis from glucose. Two codon-optimized genes, carB and carRP, are integrated into the yeast genome via CRISPR-Cas9, enabling stable β-carotene production without the need for exogenous precursors. To further enhance yields, we develop a spatial metabolic engineering toolkit that localizes key enzymes to lipid droplets increasing titers from 129.1 mg/L to 314.8 mg/L in shake flasks. Scale-up in a 5-L fed-batch bioreactor achieve 1.8 g/L production. We conducted systematic interviews encompassing the entire industrial chain, from technology R&D and industrial transformation to corporate operations and end-market applications, while also incorporating insights from regulatory compliance experts, thereby achieving comprehensive coverage of all key stakeholders across the value chain and help improve the design of the project cycle. In addition, we developed a colorimetric monitoring device to signal the optimal sampling time and fermentation endpoint. Also, we successfully seek collaboration with KOLs in the personal care category who have more than 20 million fans to co-productize and commercialize our endeavor for real market results. For education, we innovatively seek close support from top game tech companies, include Netease and Roblox, to establish in-depth synthetic biology dialogue with teenager game lovers, via the form of content they can well resonate. For more details, please visit our wiki @ https://2025.igem.wiki/nacis-shanghai. [Wiki](https://2025.igem.wiki/nacis-shanghai) | [Official Page](https://te...https://static.igem.org/peertube/streaming-playlists/hls/89865ee1-2e15-4738-9da0-bf787e24eb2d/d0d827d1-b4ab-41b6-bb7d-15f7a464d6a9-master.m3u8https://video.igem.org/videos/embed/hYXZ2Sxi1YjLX8LJf7Mvur1180152025-08-13T03:51:03.769ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3tCDuqk4aieZ7fFTBBt5sAhttps://video.igem.org/lazy-static/thumbnails/06e366ad-9b9b-4db7-8e81-c1ec176ae183.jpgBAID-China: Pestacheck: A Rapid Pesticide Residues Detection Test Strip (2025) - Project Promotio...**Title:** Pestacheck: A Rapid Pesticide Residues Detection Test Strip **Description:** BAID-China 2025 is developing a safe, low-cost, and accessible pesticide residue detection test strip. Using the acetylcholinesterase (AChE) inhibition assay as our core principle, we first optimize AChE through alanine scanning and AI-guided analysis to improve sensitivity and specificity. The optimized enzyme is then expressed in a cell-free expression system, enabling rapid and scalable protein synthesis. To further enhance enzyme stability, we immobilize AChE onto gold nanoparticles (AuNPs). The resulting AuNP–AChE conjugate is integrated into our designed test strip. To assist with the test strips, we have developed a mobile application that can identify the color changes of the test strips, enabling users to quantify the amount of pesticide residues. [Wiki](https://2025.igem.wiki/baid-china) | [Official Page](https://teams.igem.org/5625)https://static.igem.org/peertube/streaming-playlists/hls/140df178-68d5-40e5-9296-8648e911591e/a7baf301-9ab0-4c88-8816-c02c0d2d9f98-master.m3u8https://video.igem.org/videos/embed/3tCDuqk4aieZ7fFTBBt5sA1215452025-08-13T03:45:53.788ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rKxmBK5hm7rPDwuvUgRBxHhttps://video.igem.org/lazy-static/thumbnails/35cfccfd-ce80-437c-a8c9-ca73494c1ba8.jpgETSU: Unlocking Hidden Nutrition in Seeds with Artificial Intelligence (2025) - Project Promotion...**Title:** Unlocking Hidden Nutrition in Seeds with Artificial Intelligence **Description:** ETSU's iGEM team uses a combined strategy of machine learning and genetic engineering, aiming to produce sustainable biofortified crops with enhanced nutrition. [Wiki](https://2025.igem.wiki/etsu) | [Official Page](https://teams.igem.org/5693)https://static.igem.org/peertube/streaming-playlists/hls/d088c5a7-f385-46e6-846a-28042afe1c73/f30507e3-0192-4d71-ba82-e1496417a9c6-master.m3u8https://video.igem.org/videos/embed/rKxmBK5hm7rPDwuvUgRBxH1230822025-08-13T04:20:38.117ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6R1y9yFdDZ1VgRtEgYrajwhttps://video.igem.org/lazy-static/thumbnails/9da18d9a-3e37-4d11-8bb1-ca56eaf0179e.jpgWIST: RiceGuard—A biosensor that detects inorganic arsenic in rice using cell-fr... (2025) - Proj...**Title:** RiceGuard—A biosensor that detects inorganic arsenic in rice using cell-free protein synthesis and dual plasmids. **Description:** Rice is a staple food for billions of people worldwide, including in Taiwan, where it is consumed daily. However, heavy metal contamination—such as arsenic, cadmium, or lead—can accumulate in rice during cultivation due to polluted soil and irrigation water. Long-term exposure to these contaminants poses serious health risks, including kidney damage, developmental issues, and cancer. Despite these dangers, most households lack a simple, affordable, and rapid method to test their rice before consumption. Our iGEM project aims to address this urgent food safety challenge by creating a portable, user-friendly heavy metal detection system specifically designed for home use. [Official Page](https://teams.igem.org/5779)https://static.igem.org/peertube/streaming-playlists/hls/2f557ac7-c5ee-4fd3-8079-030b3fd4ac3e/f690c4fc-1a94-4646-8388-8e7d2871ca10-master.m3u8https://video.igem.org/videos/embed/6R1y9yFdDZ1VgRtEgYrajw1200162025-08-13T04:24:26.987ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tVW8SEKmRL95ANqMkNPvrbhttps://video.igem.org/lazy-static/thumbnails/0cdf88da-c96c-4e72-b5a3-5b908ae07dd7.jpgOUC-Haide: Introduction of Yeast Medics (2025) - Project Promotion [English]**Title:** Introduction of Yeast Medics **Description:** As of 2024, there are approximately 589 million adults with diabetes worldwide, and this number is projected to soar to 853 million by 2050. More critically, around 25% of people with diabetes are affected by wound issues, among whom 15% will develop severe complications such as diabetic foot. These wounds impose a heavy economic and psychological burden on patients and their families. Against this backdrop, our team's research is dedicated to developing a kind of "Yeast Medics". In this study, yeast with the ability to secrete anti-inflammatory factors, endothelial growth factors, and antimicrobial peptides is incorporated into a hydrogel dressing. This formulation, in liquid form, is used to treat wounds in diabetic patients. [Wiki](https://2025.igem.wiki/ouc-haide) | [Official Page](https://teams.igem.org/5541)https://static.igem.org/peertube/streaming-playlists/hls/e22e86a6-1903-4134-b9af-3812ae440b20/cf81d012-8a1d-4e1e-8551-329978f35f3e-master.m3u8https://video.igem.org/videos/embed/tVW8SEKmRL95ANqMkNPvrb1060252025-08-13T04:29:34.346ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rQJo2DUqE5PbNML11kXUTrhttps://video.igem.org/lazy-static/thumbnails/724a5244-c6aa-47ce-b053-7a45aed019fa.jpgMcGill: Cohera: Engineering Unexpected Connections (2025) - Project Promotion [English]**Title:** Cohera: Engineering Unexpected Connections **Description:** This year, at McGill iGEM, we’ve built Cohera, a new foundation for synthetic cell-cell adhesion. Cohera expands the toolbox of engineered multicellularity by enabling controllable covalent bonding across domains of life. With standard parts of SpyCatcher and Spy Tag adhesion systems, tested and true membrane anchors, and Tobacco Etch Virus (TEV) Protease recognition sequences, we've built fusion proteins to link diverse organisms for a variety of applications. Please enjoy our fun promo video done in the style of the original James Bond teaser! [Official Page](https://teams.igem.org/5556)https://static.igem.org/peertube/streaming-playlists/hls/d14248f1-ddfd-4279-8641-686b0c4e94bf/350c239e-ca4f-41b9-922e-86db16bebf78-master.m3u8https://video.igem.org/videos/embed/rQJo2DUqE5PbNML11kXUTr116513102025-08-13T04:25:30.431ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bSh9Pc1ezsdfPKzfD9iyCvhttps://video.igem.org/lazy-static/thumbnails/5c4edb83-7c67-4a5c-b821-370bb2ec5021.jpgUCSC: TTEA: Targeted Toxin Extracting Aptamer (2025) - Project Promotion [English]**Title:** TTEA: Targeted Toxin Extracting Aptamer **Description:** As the 2025 UCSC iGEM Team, we present an accessible method to treat solutions contaminated with aflatoxin B1, a carcinogenic and genotoxic foodborne mycotoxin. Our lactose-activated dual aptamer system, when paired with cellulose-based filtration, offers a sustainable solution that is adaptable to diverse agricultural contexts around the world as a way to protect vulnerable communities and support safer food systems. [Wiki](https://2025.igem.wiki/ucsc) | [Official Page](https://teams.igem.org/5662)https://static.igem.org/peertube/streaming-playlists/hls/58008772-fb32-49ae-acab-b54bb9d04d0d/3d11df61-70b7-4172-8fed-8817d442c4da-master.m3u8https://video.igem.org/videos/embed/bSh9Pc1ezsdfPKzfD9iyCv11701212025-08-13T04:34:09.589ZYES2025 Project PromotionsNOhttps://video.igem.org/w/n3DZjKVptcMiy394YfRDBthttps://video.igem.org/lazy-static/thumbnails/e38b88e6-d205-4318-80ff-f9bf614d3ed0.jpgHS-Beta: Developing an escape immune system, anti-tumor EcN (2025) - Project Promotion [English]**Title:** Developing an escape immune system, anti-tumor EcN **Description:** The microbiome plays multiple functional roles in human health, sparking interest in the use of probiotics for disease treatment. Since microorganisms can be engineered to act as intelligent living drugs capable of sensing and responding to their environment, they can colonize and locally deliver therapeutic drugs or antigens to activate immune responses in the gastrointestinal tract, oral cavity, skin, lungs, and tumors. However, bacterial toxicity may affect the dosage and efficacy of engineered bacteria. Therefore, we integrated a microbial encapsulation system, a drug delivery platform, and a suicide switch into EcN to create an immune-evading, anti-tumor EcN. [Wiki](https://2025.igem.wiki/hs-beta) | [Official Page](https://teams.igem.org/5821)https://static.igem.org/peertube/streaming-playlists/hls/aa6ecf7f-ba51-4589-9217-cd6da9e60685/cfecada4-1c8d-4751-ab6a-261d94cf12a6-master.m3u8https://video.igem.org/videos/embed/n3DZjKVptcMiy394YfRDBt1200212025-08-13T04:44:18.664ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tJbFQN23FL8WBJKFMPtQdGhttps://video.igem.org/lazy-static/thumbnails/970c88f5-e2b6-498f-986a-016c82c528fb.jpgHS-KY: Novel PFAS Biosensor - Predicting and Validating PFOA Binding to Human Pr... (2025) - Proj...**Title:** Novel PFAS Biosensor - Predicting and Validating PFOA Binding to Human Proteins **Description:** This iGEM season, our project aims to develop a cost-effective protein-based detection system for PFAS. Using a reverse-screening approach across multiple protein-ligand databases, we identified candidate human proteins predicted to bind perfluorooctanoic acid (PFOA), a representative PFAS. Among these, we purified and characterized a key DNA repair protein that is significantly destabilized in the presence of PFOA based on results from differential scanning fluorimetry (DSF). [Wiki](https://2025.igem.wiki/hs-ky) | [Official Page](https://teams.igem.org/5782)https://static.igem.org/peertube/streaming-playlists/hls/e08a9176-0632-425f-82b3-25f936986e28/75253e19-ce92-4582-b195-a0c3efcb7c86-master.m3u8https://video.igem.org/videos/embed/tJbFQN23FL8WBJKFMPtQdG1230502025-08-13T04:53:24.635ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2xXTAouCxpRQgASjtSK2DUhttps://video.igem.org/lazy-static/thumbnails/69192de3-b036-46ed-a667-a21c7f69c603.jpgDBHS-CA: ELXIR: the Science of Stability, the Magic of Relief | @CALIMOD.CA (2025) - Project Prom...**Title:** ELXIR: the Science of Stability, the Magic of Relief | @CALIMOD.CA **Description:** Inflammatory Bowel Disease is a chronic condition characterized by inflammation in the gastrointestinal tract. The primary cause of IBD is an overreactive immune response, where immune cells mistakenly attack the gut lining, leading to prolonged inflammation and tissue damage. A key regulator of such inflammation, Interleukin-10 (Il-10), plays a fundamental role in modulating inflammation and maintaining cell homeostasis by protecting the body from an uncontrolled immune response by inhibiting pro-inflammatory cytokines like TNF-α and IL-6. However, Il-10’s therapeutic potential is severely limited by its structural instability due to its homodimer nature and easy degradation within the body. This instability reduces its effectiveness as a long-term treatment leaving patients with limited options for prolonged IBD treatments. To address this issue, we propose a probiotic-based approach, engineering a mutated more stable form of Il-10 (MIL-10). Delivered through dairy products like yogurt, this system would provide MIL-10 production in reaction to pro-inflammatory cytokines, ensuring sustained inflammation control for diseases like IBD. [Wiki](https://2025.igem.wiki/dbhs-ca) | [Official Page](https://teams.igem.org/5659)https://static.igem.org/peertube/streaming-playlists/hls/0c8fa380-6b32-40c2-b092-1a378c884cf2/49bfb750-7778-4e6c-a29f-52c960688c6c-master.m3u8https://video.igem.org/videos/embed/2xXTAouCxpRQgASjtSK2DU12101322025-08-13T04:43:26.290ZYES2025 Project PromotionsNOhttps://video.igem.org/w/e2jb9avZeuCpHcfT3zFBrhhttps://video.igem.org/lazy-static/thumbnails/d77141ff-1eab-4369-b711-366c56dbcda1.jpgPekingHSC: SAM Riboswitch-Mediated Negative Feedback Regulation of Hepatocyte SA... (2025) - Proj...**Title:** SAM Riboswitch-Mediated Negative Feedback Regulation of Hepatocyte SAM Concentration for Liver Cirrhosis Treatment **Description:** This project features a synthetic SAM riboswitch for cirrhosis. SAM, pivotal for liver function, requires strict regulation: deficiency exacerbates fibrosis; excess heightens cancer risk. The engineered system, combining the riboswitch with an allosteric ribozyme in MAT-encoding mRNA, operates via a feedback loop. Low SAM keeps the riboswitch inactive, enabling MAT synthesis to boost SAM. At optimal levels, SAM binds the riboswitch, triggering the ribozyme to cleave mRNA, halting MAT production and preventing excess. It’s a precision tool to rebalance the liver, redefining cirrhosis care. [Wiki](https://2025.igem.wiki/pekinghsc) | [Official Page](https://teams.igem.org/5789)https://static.igem.org/peertube/streaming-playlists/hls/6975bf3a-f5a8-4dca-8fae-d2609ce80ace/e72fc160-27c4-489b-931a-3b9a520fecbb-master.m3u8https://video.igem.org/videos/embed/e2jb9avZeuCpHcfT3zFBrh1150202025-08-13T05:04:44.132ZYES2025 Project PromotionsNOhttps://video.igem.org/w/91Zie9KuqbzbNzubRZXM7Qhttps://video.igem.org/lazy-static/thumbnails/4614c336-b14e-483a-b496-db766f4e9274.jpgCAU-China: PhAgri (2025) - Project Promotion [English]**Title:** PhAgri **Description:** Tong's salad looks bad? A disaster struck the CAU-vegetables town. Bacteria win as old pesticides fail. Phagri sends smart phages! These tiny soldiers target bad germs and kill them! Salad grows fresh again. More than that, PhAgri engineers phages scaffold to construct a phage-like particle library.So, ready to see PhAgri in agricultural and many other industries! [Wiki](https://2025.igem.wiki/cau-china) | [Official Page](https://teams.igem.org/5846)https://static.igem.org/peertube/streaming-playlists/hls/40ec6b79-3bb3-47a8-bff9-7e784ee55d28/c033396a-9a8b-407e-bcca-08b53254cb53-master.m3u8https://video.igem.org/videos/embed/91Zie9KuqbzbNzubRZXM7Q1170572025-08-13T05:10:43.035ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sDHGmwdrA9wgm8L1juf3sshttps://video.igem.org/lazy-static/thumbnails/f952a777-faef-4f24-955b-fecc8485d01e.jpgNAIS: CardioGuard: Dual-System Biosynthesis of Leonurine for Cardiovascular and ... (2025) - Proj...**Title:** CardioGuard: Dual-System Biosynthesis of Leonurine for Cardiovascular and Cerebrovascular Protection **Description:** Cardiovascular and cerebrovascular diseases claim over 17 million lives annually, accounting for 32% of global deaths (WHO, 2019). Leonurine, an alkaloid from Leonurus japonicus, shows preclinical protective effects by reducing oxidative stress, improving circulation, and inhibiting platelet aggregation. To enable sustainable production, we established a dual-platform biosynthesis strategy in Escherichia coli and Nicotiana tabacum hairy root systems. Both platforms heterologously express the final two pathway enzymes, LjUGT5 and LjSCPL, enabling conversion of the supplemented precursors sinapic acid (SA) and 4-guanidinobutanol into leonurine. We compare yield, cost efficiency, and purification complexity across systems to identify an optimal, scalable route, providing a stable source of leonurine for cardiovascular protection. [Wiki](https://2025.igem.wiki/nais) | [Official Page](https://teams.igem.org/5961)https://static.igem.org/peertube/streaming-playlists/hls/d7d1d211-0082-4c79-a7d2-d2e26cc90a76/3ad481ca-1da7-40f2-ba4a-c71cff41ac34-master.m3u8https://video.igem.org/videos/embed/sDHGmwdrA9wgm8L1juf3ss1040282025-08-13T05:19:43.274ZYES2025 Project PromotionsNOhttps://video.igem.org/w/hpZo6bDKVR1SSdVySHnW6bhttps://video.igem.org/lazy-static/thumbnails/c36ca19d-0f63-4c2d-b162-724bf3758c7d.jpgMissouri-Miners: Metlock: A Biomining Library (2025) - Project Promotion [English]**Title:** Metlock: A Biomining Library **Description:** This video introduces Metlock, a biomining project focused on creating a comprehensive library of genetically engineered parts for critical mineral uptake. The first phase targets zinc, showcasing our initial designs, methods, and vision for scaling the technology from lab research to real-world environmental deployment. [Official Page](https://teams.igem.org/5759)https://static.igem.org/peertube/streaming-playlists/hls/84ebaffe-6ae8-4634-8017-b5dd88f0695c/c217299c-38a0-4972-847a-d9fd0171d852-master.m3u8https://video.igem.org/videos/embed/hpZo6bDKVR1SSdVySHnW6b1130152025-08-13T05:20:20.477ZYES2025 Project PromotionsNOhttps://video.igem.org/w/aCaFieiNGuonYnAHJzUpQGhttps://video.igem.org/lazy-static/thumbnails/178ee62e-c2e9-4e4f-b993-46053c0af7db.jpgNotreDame: Fleur: GLP-1 Boosted Yogurt (2025) - Project Promotion [English]**Title:** Fleur: GLP-1 Boosted Yogurt **Description:** Meet Fleur, a GLP-1-boosted yogurt designed for easy and effective weight control. Combining wet-lab molecular cloning and dry-lab computational modeling, we are engineering probiotics that can safely secrete GLP-1-like peptides. This approach aims to lower blood sugar, slow digestion, and suppress appetite — all in a familiar, affordable food format. [Wiki](https://2025.igem.wiki/notredame) | [Official Page](https://teams.igem.org/6036)https://static.igem.org/peertube/streaming-playlists/hls/4deefcd6-d4a0-4aee-a7e7-5beba17f72f4/2945f9a9-d9e9-449b-ab06-eaaa01233ba0-master.m3u8https://video.igem.org/videos/embed/aCaFieiNGuonYnAHJzUpQG1235462025-08-13T05:25:50.860ZYES2025 Project PromotionsNOhttps://video.igem.org/w/iWfk5mkZsG6KHKPVpyyFhuhttps://video.igem.org/lazy-static/thumbnails/272bd170-530e-4db6-bbff-def8659a9e5b.jpgYNNU-China: REvoDesign: A Protein Engineering Platform for Valuable Plant Metabo... (2025) - Proj...**Title:** REvoDesign: A Protein Engineering Platform for Valuable Plant Metabolite Synthesis **Description:** Plants produce diverse secondary metabolites essential for stress responses, many with high pharmaceutical and food industry potential. A major challenge in plant-based biomanufacturing is optimizing key enzymes in rate-limiting metabolic steps. Our project, REvoDesign, a semi-rational enzyme design platform combining rational principles with evolutionary insights, streamlines this process by enabling efficient enzyme evolution even in resource-limited labs. Its user-friendly interface integrates intuitive controls with advanced computational modules, making enzyme design accessible to researchers at all levels. [Official Page](https://teams.igem.org/5915)https://static.igem.org/peertube/streaming-playlists/hls/913e59ed-d9fb-4df0-9464-d6bd79775e58/5c5b8e01-557b-45c9-ac3e-3b68d7abc0a8-master.m3u8https://video.igem.org/videos/embed/iWfk5mkZsG6KHKPVpyyFhu1220282025-08-13T05:57:56.698ZYES2025 Project PromotionsNOhttps://video.igem.org/w/dUPCUVrYBAgKRbZFp7WxA2https://video.igem.org/lazy-static/thumbnails/f7a021f0-06a5-4e36-b6eb-3939a36a6965.jpgBenenden Guangzhou: Fish Mood (2025) - Project Promotion [English]**Title:** Fish Mood **Description:** Fish in fish farms have a high chance of dying due to unknown reasons. It has been showned that the blood of fish under high stress circumstances gets coagulated and can cause heart attacks in fish. Our video aims to provide a fun and informative way to explain this problem which even primary students can understand. [Wiki](https://2025.igem.wiki/benenden-guangzhou) | [Official Page](https://teams.igem.org/5871)https://static.igem.org/peertube/streaming-playlists/hls/688db26b-2890-46ee-b2aa-af08b3fa1581/91c7f453-e25b-46bf-9f64-bd972e059a49-master.m3u8https://video.igem.org/videos/embed/dUPCUVrYBAgKRbZFp7WxA21200252025-08-13T06:03:19.952ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nri1zca7eHRFtGVEZWxfqehttps://video.igem.org/lazy-static/thumbnails/1e08b21b-c745-48ff-a0bb-2bd75be2d37e.jpgFudan: DR sTraTeGY (2025) - Project Promotion [English]**Title:** DR sTraTeGY **Description:** The overuse of antifungal agents is driving resistance, a crisis exacerbated by global warming enabling once-harmless environmental fungi to infect people. However, no new antifungal drugs have been discovered for more than half a century. Candida auris, an ​​emerging multidrug-resistant fungal pathogen, infects heroine's friend. Watch the video and see how the heroine saves her friend! [Wiki](https://2025.igem.wiki/fudan) | [Official Page](https://teams.igem.org/5643)https://static.igem.org/peertube/streaming-playlists/hls/ad97fd22-d4a6-4162-b921-ebfc51b3ce4d/12637a84-1a7d-4901-b689-d1579ad4960a-master.m3u8https://video.igem.org/videos/embed/nri1zca7eHRFtGVEZWxfqe1205882025-08-13T06:11:50.744ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eiFBnDdLmyYuM4G6ya5LsHhttps://video.igem.org/lazy-static/thumbnails/16d782d9-2e62-4f4c-88f1-9599b6a405cf.jpgSquirrel-Beijing: ReGenStitch: The Next Generation of Surgical Sutures (2025) - Project Promotion...**Title:** ReGenStitch: The Next Generation of Surgical Sutures **Description:** We, Squirrel-Beijing, designed a bioengineered surgical suture, called ReGenStitch, to solve the issues of wound reopening, infection, and slow recovery after surgeries. Hundreds of millions of surgeries occur each year, yet many patients suffer due to irritation, infection, and suture removal occur due to outdated material. Our ReGenStitch perfectly overcomes these problems by integrating three bio modules. We envision safer, smarter sutures becoming the new standard for care. [Wiki](https://2025.igem.wiki/squirrel-beijing) | [Official Page](https://teams.igem.org/5878)https://static.igem.org/peertube/streaming-playlists/hls/6bbedb6c-a810-47bf-a260-bade6802e2ad/77a4f3d8-0639-4722-97c2-d89ae23003c6-master.m3u8https://video.igem.org/videos/embed/eiFBnDdLmyYuM4G6ya5LsH1230272025-08-13T06:18:49.990ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3APhptW9eD8xG1jo1WdCjQhttps://video.igem.org/lazy-static/thumbnails/7e5932d1-7bd5-497b-9455-7946d5710422.jpgBaltimore-BioCrew: Triagnostic: Spotting Remission Is Our Mission (2025) - Project Promotion [Eng...**Title:** Triagnostic: Spotting Remission Is Our Mission **Description:** In recent years, breast cancer has resurged in our communities, primarily in younger women under the age of 30. It is estimated that 10-15% of all breast cancer cases are triple negative breast cancer, or TNBC. TNBC is a rare type of aggressive breast cancer with an absence of progesterone receptors, HER2 proteins, and estrogen receptors. Approximately 40% of former TNBC patients face recurrence of TNBC after proper treatment. In order to prevent TNBC resurgence and former TNBC patients from experiencing treatment again, our team works on creating a solution that detects early TNBC resurgence in order to cure early TNBC resurgence that doesn’t involve chemotherapy while being reusable, efficient, and protecting the patient’s privacy. Our project’s goal is to create a preliminary detection home test that provides reusable and effective TNBC resurgence detection in order to alert patients about recurrence of the dangerous disease before additional chemotherapy treatment is required. [Wiki](https://2025.igem.wiki/baltimore-biocrew) | [Official Page](https://teams.igem.org/5816)https://static.igem.org/peertube/streaming-playlists/hls/150eb45f-ce78-4b1a-9184-3d7efa3bd314/cff34ffa-3541-4f57-98a1-780ca712eb50-master.m3u8https://video.igem.org/videos/embed/3APhptW9eD8xG1jo1WdCjQ1210762025-08-13T06:29:10.398ZYES2025 Project PromotionsNOhttps://video.igem.org/w/4Daexb8puWLgcq62kXrFvNhttps://video.igem.org/lazy-static/thumbnails/e4c6bfd6-25fe-4bbe-8898-01f03464be08.jpgASU: UNIGLOBIN – portable enzymatic kit for universal blood conversion (2025) - Project Promotion...**Title:** UNIGLOBIN – portable enzymatic kit for universal blood conversion **Description:** In emergencies, access to compatible blood can mean the difference between life and death. But in many blood deserts across the world, finding the right blood type in time isn’t always possible. Our solution: a portable enzymatic blood conversion kit that uses specialized enzymes to remove A, B, and their extended antigens from donor blood. The result is universal O-type blood that can be given to anyone. Compact, field-ready, and easy to use, UNIGLOBIN aims to make universal blood available anytime, anywhere. [Official Page](https://teams.igem.org/5679)https://static.igem.org/peertube/streaming-playlists/hls/1d7ba031-ad41-40f5-9322-e6577fde0b34/2f075bc4-4008-44ea-ad9f-4df9347e59d9-master.m3u8https://video.igem.org/videos/embed/4Daexb8puWLgcq62kXrFvN1190552025-08-13T06:20:33.579ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7vuRGKRNCSh33jiJQHn5Jdhttps://video.igem.org/lazy-static/thumbnails/1c9594f6-54e0-4f3b-9c43-094473fd918a.jpgConcordia-Montreal: Toast Busters (2025) - Project Promotion [English]**Title:** Toast Busters **Description:** Our project develops a genetically engineered probiotic to help people with celiac disease. The probiotic produces an enzyme that breaks down gluten in the gut before it triggers an immune response. To enhance protection, we incorporate a peptide sequence that binds to the most immune-reactive part of gluten, shielding it from detection by the immune system. Together, the enzyme and peptide provide a double layer of defense against gluten-induced inflammation. [Wiki](https://2025.igem.wiki/concordia-montreal) | [Official Page](https://teams.igem.org/5785)https://static.igem.org/peertube/streaming-playlists/hls/34b52f5d-0188-41c8-805f-a59bb780cff8/46f98a71-4f71-414e-9608-6430154e2cb6-master.m3u8https://video.igem.org/videos/embed/7vuRGKRNCSh33jiJQHn5Jd1220782025-08-13T06:31:21.979ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rrgmLj2j75Qq5Pmk9MLFrUhttps://video.igem.org/lazy-static/thumbnails/2539b4a3-51a0-4d7a-bbf0-134e1c0304c9.jpgPennState: Penn State: HELIOS: Heparosan Engineered for Laboratory Innovation an... (2025) - Proj...**Title:** Penn State: HELIOS: Heparosan Engineered for Laboratory Innovation and Optimized Synthesis **Description:** HELIOS represents the next chapter in biosynthetic heparin production. This year, at Penn State, we aim to optimize heparosan production in E. coli BL21 through the development of a one-plasmid expression system for all necessary enzymes. Plasmids will be optimized for heparosan production through the construction of a large RBS library and finding the optimal heparosan-producing plasmid. We hope our project will contribute to increasing the efficiency and reducing the costs of biosynthetic heparosan, allowing for downstream processing into crucial pharmaceuticals such as heparin. [Wiki](https://2025.igem.wiki/pennstate) | [Official Page](https://teams.igem.org/5658)https://static.igem.org/peertube/streaming-playlists/hls/cdfb8684-1b32-4ef0-bff3-5bac5b729dca/260413cd-d126-4d37-a64e-c8985b44409a-master.m3u8https://video.igem.org/videos/embed/rrgmLj2j75Qq5Pmk9MLFrU1180292025-08-13T06:35:52.621ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7oPkrfTnjj9zxK7pV3FuLbhttps://video.igem.org/lazy-static/thumbnails/bca53e7c-f59e-47fb-947d-ece35c633d7d.jpgHAOLVE-Nanjing: REEnaisance: Reimagining Rare Earth Element Extraction Through B... (2025) - Proj...**Title:** REEnaisance: Reimagining Rare Earth Element Extraction Through Bioabsorption **Description:** REEnaisance: Reimagining Rare Earth Element Extraction Through Bioabsorption. [Wiki](https://2025.igem.wiki/haolve-nanjing) | [Official Page](https://teams.igem.org/5694)https://static.igem.org/peertube/streaming-playlists/hls/33c65dbe-81e9-422c-9c12-0d52775ace0a/4f102ea4-8cd3-4340-89c1-0b0f28a58e79-master.m3u8https://video.igem.org/videos/embed/7oPkrfTnjj9zxK7pV3FuLb1230152025-08-13T06:37:28.170ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bQsb5kNjTjm6y22Vf16cnJhttps://video.igem.org/lazy-static/thumbnails/3c1e9f85-ae69-47ae-94a4-41334cf9fa43.jpgUAM: Third generation (2025) - Project Promotion [English]**Title:** Third generation **Description:** We are the third generation of iGEM UAM researchers, working on the development of a recombinant antivenom for scorpion stings, a major public health issue in Mexico. Our goal is to provide a safer, accesible and more effective solution for the communities affected. [Wiki](https://2025.igem.wiki/uam) | [Official Page](https://teams.igem.org/5609)https://static.igem.org/peertube/streaming-playlists/hls/57bf37b9-c3ab-416b-916f-02eacd6ab1c0/c33cbea3-a72a-4cdb-8dc0-1aace6370e0a-master.m3u8https://video.igem.org/videos/embed/bQsb5kNjTjm6y22Vf16cnJ1210342025-08-13T06:39:11.896ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sBDRwoa4gaBw365v6svKychttps://video.igem.org/lazy-static/thumbnails/fb9d4e53-a570-4518-8a1e-19707aef217f.jpgNCKU-Tainan: Byefilm – Breaking biofilms, empowering recovery (2025) - Project Promotion [English]**Title:** Byefilm – Breaking biofilms, empowering recovery **Description:** Hi! We are the iGEM NCKU-Tainan team from Taiwan! This year, we’re developing an innovative biosolution to target biofilm infections after joint replacement surgery—making treatment more precise and recovery faster. Follow us on IG for more project updates and behind-the-scenes stories 👉 @igem_ncku_tainan For inquiries or collaboration opportunities, contact us at 📩 nckuigem2025@gmail.com 您好！我們是 iGEM NCKU-Tainan 團隊！今年，我們正研發創新的生物解決方案，針對人工關節手術後的生物膜感染，讓治療更精準、復原更快速。 更多專案進展與幕後故事，歡迎追蹤我們的 IG 👉 @igem_ncku_tainan 有任何問題或合作邀請，歡迎來信 📩 nckuigem2025@gmail.com [Wiki](https://2025.igem.wiki/ncku-tainan) | [Official Page](https://teams.igem.org/6003)https://static.igem.org/peertube/streaming-playlists/hls/d787f723-1835-4ccb-bbc5-c4621a8c2adf/71f7c744-83dc-45ce-a785-52b1e29d4884-master.m3u8https://video.igem.org/videos/embed/sBDRwoa4gaBw365v6svKyc1220402025-08-13T06:54:35.036ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uBQ6yDHY6gm8hHL8t6uNWwhttps://video.igem.org/lazy-static/thumbnails/ab821ded-e54a-4782-b091-c4bcdcb6a751.jpgUCalgary: Rumino: A Fundamental Platform For Detection (2025) - Project Promotion [English]**Title:** Rumino: A Fundamental Platform For Detection **Description:** Rumino is introducing a manual, point‑of‑use modular diagnostics platform powered by a strand displacement reaction, engineered for on-site detection of viral RNA such as H5N1. [Wiki](https://2025.igem.wiki/ucalgary) | [Official Page](https://teams.igem.org/5980)https://static.igem.org/peertube/streaming-playlists/hls/e7c08df9-8c29-402c-a1d1-b189e6fbbd22/a2c15599-7ed3-4f5e-8832-f0fdc5e38713-master.m3u8https://video.igem.org/videos/embed/uBQ6yDHY6gm8hHL8t6uNWw1200332025-08-13T06:52:00.194ZYES2025 Project PromotionsNOhttps://video.igem.org/w/aNGkn497AHMLxe7NTQgPjAhttps://video.igem.org/lazy-static/thumbnails/586769fa-e3b2-4344-bb73-b55bff5a6011.jpgAustin-UTexas: UT Austin: CyanoSense: Detection, Degradation, and Production of ... (2025) - Proj...**Title:** UT Austin: CyanoSense: Detection, Degradation, and Production of CyanoBacteria Toxins **Description:** This short 2 minute promotional video showcases the 2025 UT Austin CyanoSense project which aims towards alleviating the issue of cyanobacteria toxins in local waterways. [Wiki](https://2025.igem.wiki/austin-utexas) | [Official Page](https://teams.igem.org/5584)https://static.igem.org/peertube/streaming-playlists/hls/4f675166-ceb1-4695-a7fe-51c27064918a/5a1b6732-68bf-4e2d-99a9-eee347015b52-master.m3u8https://video.igem.org/videos/embed/aNGkn497AHMLxe7NTQgPjA1180382025-08-13T07:00:15.358ZYES2025 Project PromotionsNOhttps://video.igem.org/w/jJwYKKaNHLAZuCvgV9PAbnhttps://video.igem.org/lazy-static/thumbnails/f9f0f3a6-2834-4c29-9356-08e5aeaad205.jpgLZU-MEDICINE-CHINA: From the Operating Room to the Laboratory (2025) - Project Promotion [English]**Title:** From the Operating Room to the Laboratory **Description:** This video describes the background of our project: why gut microbiota dysbiosis occurs during the perioperative period. As well as our solution involves engineering a probiotic to produce oleic acid, allowing it to function effectively in the intestinal environment. [Wiki](https://2025.igem.wiki/lzu-medicine-china) | [Official Page](https://teams.igem.org/5562)https://static.igem.org/peertube/streaming-playlists/hls/97b4d34e-2d16-40c6-933e-f4f3d66fef59/11ac8bad-41c0-4901-aab4-8b2c5d2809bb-master.m3u8https://video.igem.org/videos/embed/jJwYKKaNHLAZuCvgV9PAbn1220292025-08-13T08:00:43.722ZYES2025 Project PromotionsNOhttps://video.igem.org/w/f2ytTLkmanXkjTF7CkB334https://video.igem.org/lazy-static/thumbnails/527b4db8-18ce-469f-91b8-e53048c76d89.jpgDNHS-SanDiego-Ca: Granulyze: A Novel Solution to Amyotrophic Lateral Sclerosis T... (2025) - Proj...**Title:** Granulyze: A Novel Solution to Amyotrophic Lateral Sclerosis Targeting Stress Granules and TDP-43 Aggregation in the Brain **Description:** The goal of our project is to mitigate the effects of Amyotrophic Lateral Sclerosis (ALS), a neurodegenerative disease that affects millions worldwide. The accumulation of stress granules and downstream aggregation of TDP-43 protein are implicated in ALS. We developed a novel solution that utilizes antisense oligonucleotides (ASOs) and custom RNA aptamers to target upstream factors contributing to this accumulation, thereby minimizing the risk of TDP-43 protein aggregation under oxidative stress conditions and limiting ALS symptoms. [Wiki](https://2025.igem.wiki/dnhs-sandiego-ca) | [Official Page](https://teams.igem.org/5697)https://static.igem.org/peertube/streaming-playlists/hls/7197b3bb-6f1b-4cf0-8de7-656479fa6ae7/e3eb1cf4-02f1-4ef4-aa21-744ec13c0eff-master.m3u8https://video.igem.org/videos/embed/f2ytTLkmanXkjTF7CkB3341230592025-08-13T07:14:13.707ZYES2025 Project PromotionsNOhttps://video.igem.org/w/siqHrMfzPVVLNQk4Q1z96Chttps://video.igem.org/lazy-static/thumbnails/3ca323f5-7b24-4217-8512-bde35b24c424.jpgNENU-China: An attempt to address lactose intolerance using synthetic biology (2025) - Project Pr...**Title:** An attempt to address lactose intolerance using synthetic biology **Description:** Lactose intolerance is a health issue that widely plagues people around the world, causing sufferers to suffer from diarrhea and bloating after consuming excessive lactose. Our team hopes to use Bifidobacterium modified through synthetic biology, and introduce lactose uptake proteins, suicide systems, adhesion systems, and modified lactase into the engineered bacteria, so that the modified probiotics can safely and stably help patients absorb and decompose excessive lactose. We attempt to make an effort to solve this problem that troubles people worldwide. [Wiki](https://2025.igem.wiki/nenu-china) | [Official Page](https://teams.igem.org/5582)https://static.igem.org/peertube/streaming-playlists/hls/d4fc7aea-5c16-4e9f-a93e-85c7f21e55ce/6d2fcf0a-d21d-4d70-ba70-652960fa8c9b-master.m3u8https://video.igem.org/videos/embed/siqHrMfzPVVLNQk4Q1z96C1220252025-08-13T08:47:00.042ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1LPUMjtPvdCF25EQ84DMBghttps://video.igem.org/lazy-static/thumbnails/019444c3-032b-4838-9950-bd0bf83c5371.jpgToronto: Mystiphage (2025) - Project Promotion [English]**Title:** Mystiphage **Description:** iGEM Toronto 2025 Project Promotion Video. [Wiki](https://2025.igem.wiki/toronto) | [Official Page](https://teams.igem.org/5708)https://static.igem.org/peertube/streaming-playlists/hls/06424061-0e57-47fc-bf2b-56d8ffbd32a9/63789cdc-4a93-4327-b8b8-29d9f20c0b0c-master.m3u8https://video.igem.org/videos/embed/1LPUMjtPvdCF25EQ84DMBg12201072025-08-13T08:47:25.708ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3im8q7PfzAd99X8J4iVDJBhttps://video.igem.org/lazy-static/thumbnails/bc112aaf-4159-4c82-bf3b-763e9dac74ed.jpgWilliam-and-Mary: Aquarius: Channeling SynBio from Lab to Water (2025) - Project Promotion [English]**Title:** Aquarius: Channeling SynBio from Lab to Water **Description:** The flow of water sustains life—distributing nutrients, supporting biodiversity, enabling agriculture, removing waste, and driving the global water cycle. Yet it can also spread pollutants, transport harmful microbes, and damage infrastructure, with many impacts amplified by human activity. Synthetic biology offers powerful tools to address these challenges, but its applications in real-world aquatic environments remain largely unexplored. This gap stems from limited understanding of how engineered organisms must be adapted to dynamic water systems—where they face complex microbial communities, fluctuating nutrient conditions, and mechanical stresses. Our project combines meta-analysis, mathematical modeling, and wet lab experiments to uncover how synthetic constructs behave in flowing water. By identifying key design principles for robust genetic circuits in aquatic contexts, we aim to unlock new possibilities for tackling pressing water-related problems worldwide. [Wiki](https://2025.igem.wiki/william-and-mary) | [Official Page](https://teams.igem.org/5687)https://static.igem.org/peertube/streaming-playlists/hls/129e535d-640f-4938-93f3-eb64c3d7f013/f41852a0-10d2-4227-b731-3ff02712b423-master.m3u8https://video.igem.org/videos/embed/3im8q7PfzAd99X8J4iVDJB1160482025-08-13T09:10:32.454ZYES2025 Project PromotionsNOhttps://video.igem.org/w/i4FrMDNUiSypANYJywWXMLhttps://video.igem.org/lazy-static/thumbnails/98017254-9ddd-4764-8342-f3341192bf99.jpgAGORA-KOR: Can ginsenoside be an answer to toxic microplastics? (2025) - Project Promotion [English]**Title:** Can ginsenoside be an answer to toxic microplastics? **Description:** AGORA's iGEM project explores the potential utilization of ginsenoside, a bioactive compound derived from ginseng, to bind and absorb toxic microplastics, enabling effective bioremediation. In our promotional video, we highlight how ginsenoside interacts with microplastic particles, which effectively capture them and reduce their environmental impact. This approach combines natural plant-derived chemistry with synthetic biology to address one of the most pressing pollution challenges of our time. [Wiki](https://2025.igem.wiki/agora-kor) | [Official Page](https://teams.igem.org/5993)https://static.igem.org/peertube/streaming-playlists/hls/8a2ee5aa-686a-46ef-a7a1-a92523f7cdea/b03b09ff-90f9-4347-8296-a653f1c0263f-master.m3u8https://video.igem.org/videos/embed/i4FrMDNUiSypANYJywWXML970572025-08-13T09:14:18.081ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mEnesBqGNEh5mBFwVoLjkAhttps://video.igem.org/lazy-static/thumbnails/d1f3561c-6061-4d05-8da3-412795d1bbb5.jpgTongji-China: Mars Expedition: The Crayfish Legend (2025) - Project Promotion [English]**Title:** Mars Expedition: The Crayfish Legend **Description:** "When Mars runs out of hope... DINNER becomes the HERO." (#SpaceSurvivalGuide #CrayfishLegend #SciFiOrReality?) [Official Page](https://teams.igem.org/5699)https://static.igem.org/peertube/streaming-playlists/hls/a7521f05-4ae3-4f41-bdc2-f935ae0a1958/82efb6b0-bace-4755-9ae2-e6da0f24148f-master.m3u8https://video.igem.org/videos/embed/mEnesBqGNEh5mBFwVoLjkA1165252025-08-13T09:14:34.765ZYES2025 Project PromotionsNOhttps://video.igem.org/w/pD1ARV6jDeZT6e8p3gZT1Ehttps://video.igem.org/lazy-static/thumbnails/88cbe27a-e54a-4d4c-87a5-33941674f0f8.jpgCSW-UD: Cleaning Up Oil Spills With the Help of Alcanivorax borkumensis (2025) - Project Promotio...**Title:** Cleaning Up Oil Spills With the Help of Alcanivorax borkumensis **Description:** According to the U.S. Environmental Protection Agency (EPA), around 25,000 oil spills occur in the U.S. alone annually. The harsh chemical composition of the oil kills hundreds of thousands of marine wildlife and poses severe risks to human health. Current cleanup methods, such as shoreline flushing, booms, vacuums, sorbents, shoreline cleaners, and biodegradation agents, have proven inefficient, labor-intensive, and expensive. To address this, we introduce Alcanivorax borkumensis, a marine bacteria known to accumulate around oil spills and clean them up! Our goal is to study the mechanisms behind its oil-degrading abilities and engineer ways to enhance its efficiency. [Wiki](https://2025.igem.wiki/csw-ud) | [Official Page](https://teams.igem.org/5978)https://static.igem.org/peertube/streaming-playlists/hls/bf6d143e-6200-48bb-8229-15813bb50caa/eb9ae58f-34a4-49d3-87e2-0b380bc0939a-master.m3u8https://video.igem.org/videos/embed/pD1ARV6jDeZT6e8p3gZT1E1180592025-08-13T09:13:10.645ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1bYew5c7EjndtGeRdvCASHhttps://video.igem.org/lazy-static/thumbnails/97589c1a-ffc1-4d85-b7df-415830e3a803.jpgSHSBNU-China: Use hagfish protein as a repair material for space (2025) - Project Promotion [Engl...**Title:** Use hagfish protein as a repair material for space **Description:** Hagfish living in the deep sea produce two special proteins: intermediate filament protein and mucin protein. We use intermediate filament protein as the final aerospace repair material. By simplifying part of the structure of the intermediate filament protein and adding some other biological components, its properties will be further enhanced. By adding the proteins we have made into space equipment and enhancing their properties, this can effectively prevent the equipment from being damaged. It has increased the usage time of the equipment. [Wiki](https://2025.igem.wiki/shsbnu-china) | [Official Page](https://teams.igem.org/5639)https://static.igem.org/peertube/streaming-playlists/hls/018817b2-5afa-4429-80cf-fe6d2f9eeef5/c2bf84c0-fc40-4a08-983a-4563f2cfe5ca-master.m3u8https://video.igem.org/videos/embed/1bYew5c7EjndtGeRdvCASH1230282025-08-13T09:20:15.210ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uwxhwNsgMuSr5ktsGxyQp6https://video.igem.org/lazy-static/thumbnails/fd4109c3-4d23-47a6-8ac1-165d547a21d1.jpgNYU-Abu-Dhabi: Revitalyze: Restoring glycosylation, one vesicle at a time (2025) - Project Promot...**Title:** Revitalyze: Restoring glycosylation, one vesicle at a time **Description:** Congenital disorders of glycosylation (CDGs) are rare metabolic disorders in which glycosylation, the process of adding sugars to proteins or lipids, is faulty. The most common CDG is PMM2-CDG, caused by mutations which reduce the activity of the PMM2 enzyme, disrupting glycosylation. At NYU Abu Dhabi, we are developing Revitalyze, a probiotic-based therapy that uses engineered probiotic bacteria to produce and deliver functional PMM2 enzymes to the patient’s body via extracellular vesicles (EVs), thereby restoring glycosylation, one vesicle at a time. Our approach is non-invasive, suitable for all ages, and potentially adaptable to other CDGs and disorders, bringing hope to families who have long been overlooked. [Wiki](https://2025.igem.wiki/nyu-abu-dhabi) | [Official Page](https://teams.igem.org/5671)https://static.igem.org/peertube/streaming-playlists/hls/e70379c4-aa7f-46fd-991b-81ae630143eb/889794ed-10b7-4b7f-83d9-0b430d515602-master.m3u8https://video.igem.org/videos/embed/uwxhwNsgMuSr5ktsGxyQp61210892025-08-13T09:17:34.859ZYES2025 Project PromotionsNOhttps://video.igem.org/w/k6QdMenH45w8Zh8g1zahvghttps://video.igem.org/lazy-static/thumbnails/cfab0941-b88e-46ea-8c86-24bb815d9ad2.jpgMcMasterU: Sterosaurus: At-source carbon dioxide upcycling for steroid precursor... (2025) - Proj...**Title:** Sterosaurus: At-source carbon dioxide upcycling for steroid precursor production **Description:** The project, Sterosaurus, aims to overproduce ergosterol, a high-value phytosterol with pharmaceutical and nutraceutical applications, in the microalgae, Chlamydomonas reinhardtii. Ergosterol is a precursor to the production of human steroid hormones, including progesterone and cortisone which are used in hormonal medications to treat menopause symptoms. Algae growth is fuelled by carbon dioxide, which is readily produced by industrial processes, like alcohol fermentation or steel production. Current manufacturing produces steroid hormones using fermentation that hijacks human agrifood sources and adds to carbon emissions. Our project supersedes traditional ergosterol production methods which use yeast by offering a cheaper and carbon negative production in biomanufacturing. Since the international green house gas protocols ask for reductions in Scope One, or direct operational activity, we know our hometown, Hamilton, struggles to make significant changes. The many breweries and steel plant that are economic drivers of our city cannot make any reductions in Scope One with current technology, but they can now with Sterosaurus. Algal photobioreactors act as a bio-based carbon capture and utilization strategy, but with a high capital cost, encounter financial barriers. Ensuring the production of sufficient high-value products, allows us to take advantage of the constant carbon fuel for our biosystem. In addition to the production of sterols from a generally regarded as safe (GRAS) chassis, Sterosaurus benefits from carbon sequestration incentives, gaining 100$ per ton of carbon dioxide sequestered, and selling the processed biomass waste for secondary markets. [Wiki](https://2025.igem.wiki/mcmasteru) | [Official Page](https://teams.igem.org/5688)https://static.igem.org/peertube/streaming-playlists/hls/9aae11fa-afdd-4460-96a5-6405f6e92099/e3899a4f-d31e-4bff-bf1d-e4c0cf68428f-master.m3u8https://video.igem.org/videos/embed/k6QdMenH45w8Zh8g1zahvg1230772025-08-13T09:19:04.177ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sx55QYKgSaxyWWauCS5Fvqhttps://video.igem.org/lazy-static/thumbnails/facca9ea-b40c-4aba-9c61-841e43273268.jpgNUDT-CHINA: Signal-controlled protein secretion in mammalian cells. (2025) - Project Promotion [E...**Title:** Signal-controlled protein secretion in mammalian cells. **Description:** Gene switches are essential tools in synthetic biology, providing precise and programmable control over cellular functions. Rapid responsiveness is particularly crucial for therapeutic interventions and dynamic biocomputational systems; however, traditional gene switches in mammalian cells regulate gene expression at both transcriptional and translational levels, inherently causing delays. To address this limitation, NUDT-CHINA 2025 intends to develop a novel mechanism that directly controls the release of preformed secretion granules from mammalian cells. By bypassing the slower gene expression pathways, we aim to achieve significantly faster cellular responses to external stimuli, such as light and small molecules, or internal cellular signals, like Ca²⁺ influx. This innovative approach substantially reduces response times compared to conventional synthetic biology switches, offering potential improvements in therapeutic efficacy and biocomputational functionality. [Wiki](https://2025.igem.wiki/nudt-china) | [Official Page](https://teams.igem.org/5819)https://static.igem.org/peertube/streaming-playlists/hls/d6e42db8-2b87-4f1b-9491-35b992c18ee6/4a214c26-ee52-4ce2-a538-b33ef3cb8824-master.m3u8https://video.igem.org/videos/embed/sx55QYKgSaxyWWauCS5Fvq1060272025-08-13T09:20:31.354ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9WYrE7ok4srjHLPVr7qKHvhttps://video.igem.org/lazy-static/thumbnails/ceb94c09-e8d9-458e-b14f-52ac2e54954c.jpgNMU-China: A Dual-Bacteria System For Degrading Microplastics: the Plastosymbion (2025) - Project...**Title:** A Dual-Bacteria System For Degrading Microplastics: the Plastosymbion **Description:** Plastic has always been an indispensable material in human life. However, with the extensive use of plastic products, the problem of plastic waste has become increasingly serious. A large amount of plastic waste is dumped into the ocean or piled up on land. Under the influence of wind, waves and sunlight, it gradually degrades and breaks into plastic fragments with a diameter of less than 5 millimeters, known as microplastics. According to statistics, there are over 250,000 tons of plastic debris floating on the global ocean, which has produced countless microplastic particles. These particles drift with ocean currents, are mistakenly ingested by marine organisms, enter the food chain, and eventually end up on our own dining tables. On land, microplastics enter soil and water bodies through rainwater runoff, wind transmission and other means, and even float in the air, thus entering the human body and threatening our health. Microplastics have extremely strong chemical stability and are difficult to be naturally decomposed. They may accumulate in the human body for a long time. Once in the human body, microplastics first affect intestinal health, causing an imbalance in the intestinal flora and affecting the intestinal metabolic function. In addition, after being digested by the intestine, the fragments can enter the bloodstream, triggering a systemic inflammatory response. Microplastics can deposit in various systems of the human body through the bloodstream, or enter cells, causing various toxic effects, such as local inflammation of organs, dysbiosis and metabolic disorders, and even may cause tumors and cancer. What is more worrying is that microplastics may also carry other harmful substances, such as heavy metals and pathogens, which may further aggravate the harm to human health. In response to the issue of how to remove microplastics from the human body, our...https://static.igem.org/peertube/streaming-playlists/hls/48760e84-088e-411c-9a93-8371fccf1bf3/26a8db6c-1c34-4084-b347-57753100aea4-master.m3u8https://video.igem.org/videos/embed/9WYrE7ok4srjHLPVr7qKHv1230592025-08-13T09:37:01.445ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9yKy458JY9HQMUK7BRypRfhttps://video.igem.org/lazy-static/thumbnails/ee25f77f-6096-4c02-b32f-d4effaca91e1.jpgTAU-Israel: Oncoligo - Checkmating Cancer! (2025) - Project Promotion [English]**Title:** Oncoligo - Checkmating Cancer! **Description:** Promotion video of TAU-2025 iGEM team. [Wiki](https://2025.igem.wiki/tau-israel) | [Official Page](https://teams.igem.org/5661)https://static.igem.org/peertube/streaming-playlists/hls/455bc00c-33a8-44e2-8099-69ee760b4a54/b7a7c849-4746-4c11-877b-59f784a82f2a-master.m3u8https://video.igem.org/videos/embed/9yKy458JY9HQMUK7BRypRf12153892025-08-13T09:36:10.606ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nPy8YPC61GX9ANYvavfnVGhttps://video.igem.org/lazy-static/thumbnails/226ec9a4-77bb-48fc-8fe8-d3991b4362fa.jpgCCA-San-Diego: ParkinSolve (2025) - Project Promotion [English]**Title:** ParkinSolve **Description:** In the United States alone, 1 million people have been diagnosed with Parkinson's disease. With symptoms including tremors, bradykinesia, and cognitive decline, PD can greatly affect quality of life. That number is estimated to grow to 1.2 million by 2030, but despite affecting millions, it has no set cure and definitive preventatives. Our treatment is based on a cell-therapy approach that targets neuroinflammation, a major contributor to neurodegeneration in Parkinson's disease (PD). We genetically modified CHO cells to produce anti-inflammatory compounds that suppress overactive cytokine-triggered microglial responses. We also propose a couple of promoters that can be coupled with these CHO cells in order to sense biomarkers associated with PD, thus creating a framework that can dynamically reduce inflammation in the central nervous system (CNS). Our treatment is unique in that it continuously targets the upstream cause of degeneration - chronic neuroinflammation - within the brain itself, rather than compensating for PD symptoms by regular registration of dopamine. Furthermore, from an engineering perspective, our system integrates biomarker-responsive promoters to a therapeutic output, coupled with a kill-switch system inducible from the outside within a cell chassis. This represents a novel form of therapeutic that can adapt to disease dynamics in real time, producing therapeutics only when triggered by necessary signs of PD and easily quenchable by a kill switch. Our treatment has the possibility to help improve the quality of life for millions of people by reducing symptoms of PD and revolutionize the novel and emerging field of synthetic neurobiology. [Wiki](https://2025.igem.wiki/cca-san-diego) | [Official Page](https://teams.igem.org/5678)https://static.igem.org/peertube/streaming-playlists/hls/b0b3acae-7d54-47a5-a7c0-50cae92986fe/9901e254-e38e-477a-8ea8-2fe075f76ab2-master.m3u8https://video.igem.org/videos/embed/nPy8YPC61GX9ANYvavfnVG1080382025-08-13T09:36:33.070ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eyeXqRCBMykqX6KK3nqSxWhttps://video.igem.org/lazy-static/thumbnails/7e5db52d-bb30-4d3b-b7bb-8f2f841b37cd.jpgEHSBNU: Welcome, this is where your research materials stay safe (2025) - Project Promotion [Engl...**Title:** Welcome, this is where your research materials stay safe **Description:** This video gives a brief introduction of EHSBNU's program, in which team members insert Tardigrades' antifreeze and drought-resistant gene into Spodoptera frugiperda's cells, which are eukaryotic, to help explore more ways to preserve biological material in a safer and more convenient way. The video uses an example to raise researches' and investors' awareness of the preservation issue, and the introduce the principle of EHSBNU's experiment. [Official Page](https://teams.igem.org/5752)https://static.igem.org/peertube/streaming-playlists/hls/6dc73425-edb7-40b9-b8fd-e611aa7b4cd4/59db978f-e52a-4cf6-ae0c-9188ee51c52c-master.m3u8https://video.igem.org/videos/embed/eyeXqRCBMykqX6KK3nqSxW1220122025-08-13T09:42:48.039ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wHJrvD24u3uQjVSRwVQR2Whttps://video.igem.org/lazy-static/thumbnails/f97018f4-0407-4f9f-9472-5b27bcb01aef.jpgMarburg: NRPieceS – Unlocking Nature’s Antibiotic Toolbox (2025) - Project Promotion [English]**Title:** NRPieceS – Unlocking Nature’s Antibiotic Toolbox **Description:** Antimicrobial resistance is on the rise, threatening 10 million lives annually by 2050, but the antibiotics pipeline has run dry. In nature, modular enyzme complexes known as Non-Ribosomal Peptide Synthetases (NRPSs) have the ability to assemble diverse antibiotic compounds. Our project NRPieceS aims to unlock the power of those enzymes. Using synthetic biology and AI, we want to engineer NRPS to create libraries of novel, potential antibiotics. By combining modules from different organisms and using AI to predict successful designs, we aim to open new possibilities for antibiotic discovery. [Wiki](https://2025.igem.wiki/marburg) | [Official Page](https://teams.igem.org/5667)https://static.igem.org/peertube/streaming-playlists/hls/f8c5cf11-03c9-4686-a687-70c95daf1124/f1de8f37-2f5f-4378-9c76-82438ebc5b63-master.m3u8https://video.igem.org/videos/embed/wHJrvD24u3uQjVSRwVQR2W12002422025-08-13T09:42:32.100ZYES2025 Project PromotionsNOhttps://video.igem.org/w/374nDwNxL1XMxSJPyGMMsjhttps://video.igem.org/lazy-static/thumbnails/60bac430-7ece-4bb9-8434-fbee33a145fb.jpgInstitut-Le-Rosey-CH: Aptagenix: affordable non-invasive NSCLC diagnostics (2025) - Project Promo...**Title:** Aptagenix: affordable non-invasive NSCLC diagnostics **Description:** Our team at Institut Le Rosey is continuing our journey to develop an affordable non-invasive diagnostic kit for non-small lung cancer (NSCLC) that has the potential to be expanded to other types of cancer. This project promotion video illustrates our motivation, our approach, and our goal for this season of iGEM via the story of Lisa, a heavy smoker who has just developed NSCLC. [Wiki](https://2025.igem.wiki/institut-le-rosey-ch) | [Official Page](https://teams.igem.org/5601)https://static.igem.org/peertube/streaming-playlists/hls/110ad19a-86e8-455a-9621-1a6278a6ef92/c081bd74-fedc-410b-b60c-f15c865938c7-master.m3u8https://video.igem.org/videos/embed/374nDwNxL1XMxSJPyGMMsj1230412025-08-13T09:43:10.133ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7hsXJ2cDFTQwcFEA7eqDiAhttps://video.igem.org/lazy-static/thumbnails/a519cfb0-c4c7-45b1-aaed-afec887d83e5.jpgECUST-China: Wukong (2025) - Project Promotion [English]**Title:** Wukong **Description:** This video explores innovative solutions for sustainable aquaculture. It introduces a pioneering dual-wavelength light-controlled vaccine system that navigates vaccines through fish bodies using engineered strains. Additionally, it showcases an automated continuous soaking immunization device that enhances efficiency and reduces fish damage. Join us to learn how cutting-edge technology can protect marine life and secure our protein supply. [Wiki](https://2025.igem.wiki/ecust-china) | [Official Page](https://teams.igem.org/5972)https://static.igem.org/peertube/streaming-playlists/hls/32e358f2-06e7-4801-b206-a1b3d7cb9a00/32be8449-8cdc-4c00-9d70-63ecc9e19081-master.m3u8https://video.igem.org/videos/embed/7hsXJ2cDFTQwcFEA7eqDiA1170252025-08-13T09:43:44.322ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1uQTykqtmxYa4ZL531hYsshttps://video.igem.org/lazy-static/thumbnails/e0ea9b57-edf0-44b5-88f0-5a00ee4ec572.jpgNYCU-Formosa: GenOMe — genome editing, by me (2025) - Project Promotion [English]**Title:** GenOMe — genome editing, by me **Description:** GenOMe — genome editing, by me. Most BioBricks are still delivered on plasmids, which face three big problems: size limits, metabolic burden, and long-term instability. GenOMe by NYCU-Formosa moves proven plasmid circuits into the E. coli genome , delivering stable and scalable expression for complex systems. [Wiki](https://2025.igem.wiki/nycu-formosa) | [Official Page](https://teams.igem.org/5797)https://static.igem.org/peertube/streaming-playlists/hls/0406f455-73e7-42fc-944f-75063b1ad59e/e6d74b12-6ba0-443b-bf9d-3bb902894bba-master.m3u8https://video.igem.org/videos/embed/1uQTykqtmxYa4ZL531hYss1200912025-08-13T09:46:06.530ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qMgLBonvbSGQ1HyrjFSjsHhttps://video.igem.org/lazy-static/thumbnails/5a05ba0e-f06f-4994-8435-bc48151d1f54.jpgHBUT-China: Design and modification of Bacillus velezensis' antibacterial peptid... (2025) - Proj...**Title:** Design and modification of Bacillus velezensis' antibacterial peptide synthesis for agricultural disease control **Description:** The utilization rate of traditional pesticides is low (only 10%-30%), with over 70% entering the environment, leading to a serious imbalance in soil flora (bacteria increase by 50% and fungi decrease by 30%), a reduction in the diversity of weeds in farmland by more than 80%, and indirectly endangering pollinating insects. Microbial source antibacterial lipopeptide (such as that produced by Bacillus subtilis) as a green alternative, can precisely kill pathogens and activate crop resistance, reducing wheat scab by 40%, promoting nutrient absorption (phosphorus and potassium absorption +20%) and increasing yield, and has the advantage of zero residue. However, its natural yield is extremely low (g/L) and the extraction cost is high (100-600 US dollars per gram), which seriously restricts its industrial application. To address this bottleneck, this project adopts a synthetic biology strategy: Firstly, CRISPR technology is utilized to precisely knock out the "interfering genes" in Bacillus subtilis, optimizing metabolic fluxes to significantly increase lipopeptide production; Furthermore, by innovatively reconstructing the spatial position of the key subunit FenA of Fengycin synthase (NRPS) and replacing its communication domain, a novel liposopeptide synthesis pathway was explored and constructed, aiming to simultaneously enhance its antibacterial activity. The goal is to develop high-yield, efficient and environmentally friendly intelligent microbial pesticides to help agriculture achieve a win-win situation of "increasing production" and "halving chemical pesticides". [Wiki](https://2025.igem.wiki/hbut-china) | [Official Page](https://teams.igem.org/5726)https://static.igem.org/peertube/streaming-playlists/hls/c8ad83fc-383e-462f-bf50-1abe2a2ce655/a80e5ea5-6dd3-4ba7-abaa-2bdea46c2ed1-master.m3u8https://video.igem.org/videos/embed/qMgLBonvbSGQ1HyrjFSjsH1230392025-08-13T09:54:54.032ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gCpyodnxnh5MgSHeMW9uduhttps://video.igem.org/lazy-static/thumbnails/ec4819b3-edd4-4ce2-b59c-4ae4222c3e7c.jpgUZurich: TRACE - At-Home Diagnostic Tool for STIs (2025) - Project Promotion [English]**Title:** TRACE - At-Home Diagnostic Tool for STIs **Description:** Our promotion video highlights the challenges posed by sexually transmitted infections (STIs) and shows how our project tackles their spread and the associated uncertainty with an at-home diagnostic tool. [Wiki](https://2025.igem.wiki/uzurich) | [Official Page](https://teams.igem.org/5686)https://static.igem.org/peertube/streaming-playlists/hls/7e8e5fbb-828a-4e2a-bbcf-75dae311de44/f1128bd8-05ab-4bf8-bee4-e96df77abf46-master.m3u8https://video.igem.org/videos/embed/gCpyodnxnh5MgSHeMW9udu12301172025-08-13T09:51:30.302ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eoyLPwfUtQwbd2xdCqx2jqhttps://video.igem.org/lazy-static/thumbnails/7c796015-69bb-49d0-b3e7-ba38a95f1f7d.jpgJGU-Mainz: Pyricon - Spin the future with us (2025) - Project Promotion [English]**Title:** Pyricon - Spin the future with us **Description:** In this video, we want to introduce our project Pyricon. We intend to develop bacteria that combine the production of synthetic spider silk - Nature's strongest fiber - with the formation of calcite, the building block of limestone, to create a novel composite material. Pyricon aims to possess comparable strength but a greener footprint than conventional bricks. [Wiki](https://2025.igem.wiki/jgu-mainz) | [Official Page](https://teams.igem.org/5673)https://static.igem.org/peertube/streaming-playlists/hls/6c6d5cc9-0f91-44a9-b106-df1089ece1a8/a2585826-6d97-483d-802c-ebf13da78c56-master.m3u8https://video.igem.org/videos/embed/eoyLPwfUtQwbd2xdCqx2jq1220322025-08-13T10:09:41.798ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vuLg3qjrXXq2gskR2TrPgZhttps://video.igem.org/lazy-static/thumbnails/89bdfd6d-7a6b-4d29-97d4-1cd2a62215cb.jpgWestlake: A Novel Platform for Host Directed CRISPRa to Inhibit Viral Pathogenesis (2025) - Proje...**Title:** A Novel Platform for Host Directed CRISPRa to Inhibit Viral Pathogenesis **Description:** Westlake iGEM Team Project Promotional Video 2025 [Official Page](https://teams.igem.org/6014)https://static.igem.org/peertube/streaming-playlists/hls/eedd1f5b-4ec7-4b82-ae7c-fbfabac678b3/ec62157d-674c-46a5-b2c0-cb9611ae00d5-master.m3u8https://video.igem.org/videos/embed/vuLg3qjrXXq2gskR2TrPgZ1230132025-08-13T09:57:16.861ZYES2025 Project PromotionsNOhttps://video.igem.org/w/kRp9Tm8i6AD17t4ZrKREuChttps://video.igem.org/lazy-static/thumbnails/0950cfdb-7634-40e0-900c-baac39914085.jpgNUS-SPS: Enzymatic Control using Logic-Based Inducible Promoter System Engineering (2025) - Proje...**Title:** Enzymatic Control using Logic-Based Inducible Promoter System Engineering **Description:** Enzymatic Control using Logic-Based Inducible Promoter System Engineering [Wiki](https://2025.igem.wiki/nus-sps) | [Official Page](https://teams.igem.org/5860)https://static.igem.org/peertube/streaming-playlists/hls/a0c35912-2316-4f5e-8be0-5704197a4c8c/4262966a-41b7-490d-a700-1bb216ddcce2-master.m3u8https://video.igem.org/videos/embed/kRp9Tm8i6AD17t4ZrKREuC1190382025-08-13T09:58:26.787ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oNoarMDr2mFD6L2BEfgdh1https://video.igem.org/lazy-static/thumbnails/4ace709c-1842-4f8d-a4ea-93ae0ed5b168.jpgJiangnan-China: Efficient biosynthesis of LL-37 (2025) - Project Promotion [English]**Title:** Efficient biosynthesis of LL-37 **Description:** Antimicrobial resistance (AMR) currently causes approximately 4.71 million deaths worldwide, with projections reaching 8.22 million by 2050. The human-derived antimicrobial peptide LL-37, known for its potent antimicrobial activity, holds promise in addressing this crisis. However, traditional synthesis methods of LL-37 suffer from low efficiency and high costs. In response, our team engineered Saccharomyces cerevisiae as a cell factory to efficiently produce LL-37. Additionally, we developed the MADS model to design LL-37 variants with enhanced antibacterial effects. Our project provides new insights and support for mitigating AMR, while also offering a novel approach for the biosynthesis of functional short peptides. [Wiki](https://2025.igem.wiki/jiangnan-china) | [Official Page](https://teams.igem.org/5607)https://static.igem.org/peertube/streaming-playlists/hls/b8a2ec1a-2554-4f00-9ba8-5f53b0f31588/829bcad9-8a8b-4645-bf13-614e0040a7d1-master.m3u8https://video.igem.org/videos/embed/oNoarMDr2mFD6L2BEfgdh11210302025-08-13T09:59:39.373ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oNDRLDeQox8wZQwLuZBfKjhttps://video.igem.org/lazy-static/thumbnails/1e8a7f85-5aaf-40a7-8766-15163e0df8ba.jpgHeidelberg: Team Phoenics Presents: Beyond Biology – Fact or Fiction? (2025) - Project Promotion ...**Title:** Team Phoenics Presents: Beyond Biology – Fact or Fiction? **Description:** What happens when synthetic biology meets a dark basement and artificial fog? In this fast-paced twist on Beyond Biology, our team takes the stage to pitch our iGEM project in two minutes — What do you think, fact or fiction?. [Wiki](https://2025.igem.wiki/heidelberg) | [Official Page](https://teams.igem.org/5775)https://static.igem.org/peertube/streaming-playlists/hls/b8ac9846-3bbf-4b0c-af9b-1bc85a48c350/d2720b57-7ae2-4222-9a31-da6a2b6ae0c8-master.m3u8https://video.igem.org/videos/embed/oNDRLDeQox8wZQwLuZBfKj12355972025-08-13T10:10:10.978ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3esDN6Vyvc7oFewTCDHYGghttps://video.igem.org/lazy-static/thumbnails/5e276ff9-0395-47d8-8032-27e4e5999e49.jpgAix-Marseille: Living Scaffolds (2025) - Project Promotion [English]**Title:** Living Scaffolds **Description:** Living Scaffolds to fight osteoporosis, because every bone repaired is a life rebuilt. The iGEM Aix-Marseille team has developped an innovative approch to bone regeneration by engineering E.coli to produce extracellular melanin using the AIDA-Tyrosinase system. This melanin producing bacteria is safely encapsulated in a hydrogel, ensuring both therapeutic efficiency and environmental containment. Our goal is to create a living bioactive scaffolds that help repair bones. [Wiki](https://2025.igem.wiki/aix-marseille) | [Official Page](https://teams.igem.org/5932)https://static.igem.org/peertube/streaming-playlists/hls/12135ef8-ce7f-462e-8918-d79f35613bf7/24b48245-64d0-4876-b415-ef418bcd2c88-master.m3u8https://video.igem.org/videos/embed/3esDN6Vyvc7oFewTCDHYGg1230692025-08-13T10:09:51.330ZYES2025 Project PromotionsNOhttps://video.igem.org/w/v3HBs2J1wyvjg7jpJBc8pyhttps://video.igem.org/lazy-static/thumbnails/062355cb-9f04-4f5a-9f2a-15a765dd4258.jpgCAFA-Beijing: Recombinant Collagen Peptide and Novel Microneedles - ChronoKolla (2025) - Project ...**Title:** Recombinant Collagen Peptide and Novel Microneedles - ChronoKolla **Description:** To address the limitations of recombinant collagen peptide products—namely, single-function efficacy, high production costs, limited results, and poor portability—we utilized Escherichia coli BL21 as the chassis organism to design a fusion peptide sequence composed of multiple functional peptide segments. This design integrates diverse bioactivities into a single collagen peptide while optimizing production costs. The sequence was inserted into a plasmid as an expression module, which was subsequently introduced into the engineered bacteria. Coupled with our self-developed microneedle delivery system, this approach enables efficient administration, empowering individuals in a fast-paced era to truly claim their “right to skincare.” [Wiki](https://2025.igem.wiki/cafa-beijing) | [Official Page](https://teams.igem.org/5920)https://static.igem.org/peertube/streaming-playlists/hls/eb3a2709-3473-461c-a979-4066b951bf3a/cbf532bb-2dfe-444d-8439-2dae7fa96e5a-master.m3u8https://video.igem.org/videos/embed/v3HBs2J1wyvjg7jpJBc8py1230462025-08-13T10:23:19.827ZYES2025 Project PromotionsNOhttps://video.igem.org/w/98WwhBqHDyRdjsi3oNY6kKhttps://video.igem.org/lazy-static/thumbnails/037a9588-4d41-42e5-8e57-c41af0ad4133.jpgBologna: HERO – Turning Pollution into Production (2025) - Project Promotion [English]**Title:** HERO – Turning Pollution into Production **Description:** HERO is a modular bacterial chassis combining a computational design tool, a standardized Rhodococcus host, and a built-in biosensor. It streamlines the creation of pollutant-degrading, value-producing microbes by guiding gene selection, enabling easy genome integration, and detecting triacylglycerol output. [Wiki](https://2025.igem.wiki/bologna) | [Official Page](https://teams.igem.org/5716)https://static.igem.org/peertube/streaming-playlists/hls/41e4ea89-3e9c-4e18-98e2-ae8f7a68f88d/55ee076d-1317-4928-b556-05729f30c2d7-master.m3u8https://video.igem.org/videos/embed/98WwhBqHDyRdjsi3oNY6kK1215342025-08-13T10:25:38.860ZYES2025 Project PromotionsNOhttps://video.igem.org/w/a362sAsb9hiDNXdCXcp7EWhttps://video.igem.org/lazy-static/thumbnails/7df91cbe-f92b-4993-9df7-29b2a0a7505e.jpgMakerere-Uganda: Carbon - Negative Tryptophan Production (2025) - Project Promotion [English]**Title:** Carbon - Negative Tryptophan Production **Description:** Uganda is on the frontlines of climate change , with unpredictable rains, prolonged droughts, and shrinking harvests leaving millions at risk of malnutrition. Among the hardest hit is an essential nutrient you’ve probably never thought about: Tryptophan. This tiny amino acid is key for building proteins, regulating mood, and supporting healthy growth yet many communities can’t get enough of it. Our iGEM team is turning science into hope. Using synthetic biology, we’re engineering cyanobacteria nature’s tiny photosynthetic organisms to capture carbon dioxide from the air and convert it into tryptophan. No sugar. No harmful emissions. Just sunlight and CO₂. We believe this carbon-negative, sustainable approach could revolutionize nutrition in low-income regions, making vital supplements affordable and accessible while helping our planet breathe easier. [Wiki](https://2025.igem.wiki/makerere-uganda) | [Official Page](https://teams.igem.org/5770)https://static.igem.org/peertube/streaming-playlists/hls/492cd514-0441-4830-a35c-bbc828b88452/e0853083-5911-473f-ae0e-526b21446493-master.m3u8https://video.igem.org/videos/embed/a362sAsb9hiDNXdCXcp7EW122082025-08-13T10:26:29.675ZYES2025 Project PromotionsNOhttps://video.igem.org/w/4LkxyJtSFpFMngEqNgf5RMhttps://video.igem.org/lazy-static/thumbnails/abbbeb11-cdd1-4ccb-b2d3-707ba79b8ffa.jpgWestview-SanDiego: PHoeBe - Achieving a Feasible Plastic Alternative in the Form... (2025) - Proj...**Title:** PHoeBe - Achieving a Feasible Plastic Alternative in the Form of PHB Through Depolymerase and Dehydrogenase **Description:** Plastic pollution caused by the increasing use of non-biodegradable plastics has become a global concern. Even conventional recycling of non-biodegradable plastics can still lead to the accumulation of toxic microplastics. Many scientists are working to promote the switch from using petroleum-based plastics to using biodegradable plastics, like PHB plastics. Because right now PHB cannot be efficiently recycled, this plastic is not yet a viable alternative. Thus, for our project, we aim to genetically modify the bacteria Escherichia coli (E.coli) and Alteromonas macleodii to possess and use our newly discovered Depolymerase and Dehydrogenase genes. If our genetically engineered organisms prove capable of efficiently degrading PHB plastics, we can use the monomer products of PHB degradation for the resynthesis of PHB plastics, allowing us to recycle PHB in a more sustainable and long-lasting way compared to conventional recycling methods. Achieving that will drive us closer to a day where PHB plastics become a practical alternative for petroleum-based plastics, mitigating the issue of plastic pollution around the world. [Official Page](https://teams.igem.org/5934)https://static.igem.org/peertube/streaming-playlists/hls/1e7c2fb8-829a-477a-9652-aa942f40c6b7/f86d57a7-c259-4b87-990e-0bea5abd381a-master.m3u8https://video.igem.org/videos/embed/4LkxyJtSFpFMngEqNgf5RM1180632025-08-13T10:31:51.260ZYES2025 Project PromotionsNOhttps://video.igem.org/w/p1gXawVrcqqugQW11AJzAghttps://video.igem.org/lazy-static/thumbnails/993c6fd8-2e94-4f9e-9c37-9f3cf8f33d01.jpgCSMU-Taiwan: CSMU-TAIWAN: Coliguard (2025) - Project Promotion [English]**Title:** CSMU-TAIWAN: Coliguard **Description:** More and more people in the world suffer from ulcerative colitis. The therapy could be costly and difficult to access. Our team is developing an innovative technique that could potentially serve as a therapy for ulcerative colitis. In this video, we share our vision, our motivation, and the story behind our project. From identifying the problem to designing a living therapeutic solution, we aim to bring hope to patients and spark new conversations about the future of gut health. [Wiki](https://2025.igem.wiki/csmu-taiwan) | [Official Page](https://teams.igem.org/5898)https://static.igem.org/peertube/streaming-playlists/hls/ba4c04f7-6ca3-477e-83eb-12b35360dd17/a3da58e9-3698-4a32-8a4f-54edf231a0ba-master.m3u8https://video.igem.org/videos/embed/p1gXawVrcqqugQW11AJzAg1230342025-08-13T10:45:55.938ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nBQwyCAu7Z3BBCmQ2uCDSthttps://video.igem.org/lazy-static/thumbnails/627e0239-feda-4495-aaf6-22679174cdb8.jpgUiOslo-Norway: LactIQ: Let's go further (2025) - Project Promotion [English]**Title:** LactIQ: Let's go further **Description:** The Project Promotion Video from Team UiOslo-Norway 2025. [Wiki](https://2025.igem.wiki/uioslo-norway) | [Official Page](https://teams.igem.org/5849)https://static.igem.org/peertube/streaming-playlists/hls/af10d97f-628d-4835-8b8e-b69cf5cd1ea3/7f9f1a12-394d-4e9c-9996-796435669ba2-master.m3u8https://video.igem.org/videos/embed/nBQwyCAu7Z3BBCmQ2uCDSt1190622025-08-13T10:45:19.855ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2wXzgXonDbgSCmVPEa4HNdhttps://video.igem.org/lazy-static/thumbnails/765c97f6-8e17-4067-b502-e76eaf5f3434.jpgBUCT-China: BrightWaste (2025) - Project Promotion [English]**Title:** BrightWaste **Description:** BrightWaste-Enzymatic Upcycling of PET Waste and Kitchen Waste to Supramolecular Phosphorescent Materials According to global statistics, approximately 242 million tons of plastic waste are generated annually, accounting for 12% of total municipal solid waste. Meanwhile, starch constitutes about 49.6% of food residues, and improper disposal leads to severe resource waste and environmental pollution. To address these challenges, our BUCT-China presents BrightWate, a synthetic biology-based solution that upcycles both types of waste into a value-added luminescent material. The project involves two key enzymatic conversions: PETase degrades polyethylene terephthalate (PET) into terephthalic acid (TPA), while cGTase converts starch-rich food waste into β-cyclodextrin (β-CD). These two components subsequently self-assemble into the supramolecular compound TPA-CD, which exhibits persistent luminescence and room-temperature phosphorescence. Due to these unique optical properties, PPA-CD shows promising potential in anti-counterfeiting, fluorescent labeling, and other advanced material applications. By integrating enzymatic degradation, molecular assembly, and sustainable material design, BrightWate provides a dual-purpose solution for waste valorization and functional material production, showcasing the transformative power of synthetic biology in addressing global environmental and material challenges. [Wiki](https://2025.igem.wiki/buct-china) | [Official Page](https://teams.igem.org/5851)https://static.igem.org/peertube/streaming-playlists/hls/0c6bb345-32c9-4af8-a4f9-275526148d44/5bee6675-8e31-4eea-bf65-5f6d404ff625-master.m3u8https://video.igem.org/videos/embed/2wXzgXonDbgSCmVPEa4HNd1170302025-08-13T10:50:38.145ZYES2025 Project PromotionsNOhttps://video.igem.org/w/u1Sk8j7hm6rmLP9YUUG8Vthttps://video.igem.org/lazy-static/thumbnails/992da35b-7be9-4908-a995-75e1a2e0c17b.jpgLambert-GA: LANCET (2025) - Project Promotion [English]**Title:** LANCET **Description:** Lyme disease, caused by the bacteria Borrelia burgdorferi, affects nearly half a million people per year. Spread by ticks, this disease is hard to detect early on, many times with symptoms not appearing until weeks after first exposure. Early signs can include fever, fatigue, muscle aches, and the characteristic “bull’s-eye” rash, while untreated cases can progress to affect the joints, heart, and nervous system. Lambert iGEM developed LANCET, a novel diagnostic and therapeutic approach to treat the growing problem of Lyme disease. [Wiki](https://2025.igem.wiki/lambert-ga) | [Official Page](https://teams.igem.org/5612)https://static.igem.org/peertube/streaming-playlists/hls/e2dee638-47bb-4b38-9696-63f144464b19/c7927ca3-0c4c-4fe0-818f-8e8c063d3c50-master.m3u8https://video.igem.org/videos/embed/u1Sk8j7hm6rmLP9YUUG8Vt12301032025-08-13T10:50:28.456ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ustbmJQSQRN4ZT2SwdWsEEhttps://video.igem.org/lazy-static/thumbnails/7281d8fd-31c2-4a82-b999-335fc29f4303.jpgOkinawa no Daigaku: MAMORI (2025) - Project Promotion [English]**Title:** MAMORI **Description:** Okinawa faces serious agricultural threats from invasive pests such as the invasive C-strain of thrips (Scirtothrips dorsalis), which are visually indistinguishable from native species and drive overuse of pesticides. To address this, we are developing a DNA-based detection system: a paper-based microfluidic device using LAMP for rapid, on-site identification, and a fully autonomous “DNA Detection Smart Trap” that captures insects, extracts DNA, and wirelessly reports results. This integrated approach enables early, accurate pest detection and offers a scalable, sustainable alternative for global pest and vector-borne disease management. [Wiki](https://2025.igem.wiki/okinawa-no-daigaku) | [Official Page](https://teams.igem.org/5863)https://static.igem.org/peertube/streaming-playlists/hls/e671f84a-f7c9-431e-83b2-7de52d9e945a/32247240-007b-4822-addf-dec6fdb3509d-master.m3u8https://video.igem.org/videos/embed/ustbmJQSQRN4ZT2SwdWsEE1220512025-08-13T10:53:41.586ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vPwubFikiuGyBqXbkspdAPhttps://video.igem.org/lazy-static/thumbnails/6cd39fa9-9581-40c6-808b-730a06d971e9.jpgSJTU-Software: CASPIA: From Shennong’s Sips to Silicon Speed—AI That Designs Lif... (2025) - Proj...**Title:** CASPIA: From Shennong’s Sips to Silicon Speed—AI That Designs Life in Minutes **Description:** CASPIA ends the century-old guessing game of metabolic engineering, turning months of lab trial-and-error into minutes of AI-guided precision design. [Wiki](https://2025.igem.wiki/sjtu-software) | [Official Page](https://teams.igem.org/5711)https://static.igem.org/peertube/streaming-playlists/hls/f17bc415-82de-4212-be2a-e2dd1655f3ab/46c39626-ab6d-436d-b044-08afceec55ef-master.m3u8https://video.igem.org/videos/embed/vPwubFikiuGyBqXbkspdAP1180112025-08-13T10:54:25.883ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rfjvfbbaZ3Ad9VQsaodn4ghttps://video.igem.org/lazy-static/thumbnails/7d03ef5d-24f1-4cd2-80e4-01368dac4bc7.jpgIISc-Bengaluru: ARGUS-2440: Tackling Nitrate Leaching at the Root (2025) - Project Promotion [Nep...**Title:** ARGUS-2440: Tackling Nitrate Leaching at the Root **Description:** Excess nitrate ions in soil leach away due to irrigation, rainfall and weathering. They enter water bodies and prove detrimental to organisms relying on these freshwater sources. We propose to engineer a bacterium that can convert excess nitrate in the rhizosphere to ammonium, a molecule that is retained better in soil and taken up more efficiently by plants. These bacteria will be applied as a biofilm around plant roots, conferring additional resistance to drought, infection, and adverse environmental conditions. This model not only reduces the downstream effects of nitrate leaching, but also benefits crops by maintaining soil nitrogen content and retaining nutrients in an energetically favorable state for plant consumption. Our project thus provides a comprehensive agriculturally-motivated bioremediation solution against nitrate pollution. [Official Page](https://teams.igem.org/6006)https://static.igem.org/peertube/streaming-playlists/hls/cc74486c-92cf-46a1-9119-77d521249011/c84aadc3-dce2-43ff-b4e4-c9927757f28b-master.m3u8https://video.igem.org/videos/embed/rfjvfbbaZ3Ad9VQsaodn4g123072025-08-13T10:55:00.902ZYES2025 Project PromotionsNOhttps://video.igem.org/w/q8yfZkrsaGmoScGghBB7iBhttps://video.igem.org/lazy-static/thumbnails/be401517-502f-4caa-986f-ef8bc38e816c.jpgEvry-Paris-Saclay: SOLARIS (2025) - Project Promotion [English]**Title:** SOLARIS **Description:** Billions of years ago, cyanobacteria transformed Earth’s atmosphere, paving the way for life as we know it. Today, climate change threatens that balance, with CO₂ emissions climbing to dangerous levels. We, as iGEM Évry Paris-Saclay 2025 team, are taking inspiration from these ancient microbes to tackle one of humanity’s biggest challenges: the climate crisis. With SOLARIS, we aim to supercharge biological carbon capture by engineering fast-growing cyanobacteria with a novel, more efficient carbon fixation pathway, supported by an enhanced carbonic anhydrase system. This could make cyanobacteria far better at fixing CO₂ from the air and turning it into biomass. Our vision doesn’t stop there, as this approach could be applied to biomanufacturing, paving the way for a fully circular, carbon-based bioeconomy, helping fight climate change on a truly global scale. SOLARIS offers the tools with synthetic biology, but it is collaboration that will turn ideas into impact. Join us as we design, build, and share a brighter, more sustainable future. [Official Page](https://teams.igem.org/5617)https://static.igem.org/peertube/streaming-playlists/hls/c3696a08-4f43-4024-809b-908ebcf9823d/88ec0529-776b-4ac3-a797-10814f5159de-master.m3u8https://video.igem.org/videos/embed/q8yfZkrsaGmoScGghBB7iB12301132025-08-13T11:07:21.273ZYES2025 Project PromotionsNOhttps://video.igem.org/w/hxE7yDUi3YS4TZ52mjjZ2Ghttps://video.igem.org/lazy-static/thumbnails/d4fbd869-17e5-4a9f-9cfc-5d8ee195f293.jpgMSP-Maastricht: CoreSpin - Powering the future with efficiency (2025) - Project Promotion [English]**Title:** CoreSpin - Powering the future with efficiency **Description:** Heat exchangers are everywhere and support critical infrastructure across all areas of society. However, these systems are at risk of biofouling, which drastically reduces efficiency, raising energy usage and cost. That's why CoreSpin is engineering a protective layer using spider-silk proteins, which will bind to the metal surface of heat exchangers and prevent biofilm formation while maintaining the thermal conductivity of these systems. [Wiki](https://2025.igem.wiki/msp-maastricht) | [Official Page](https://teams.igem.org/5817)https://static.igem.org/peertube/streaming-playlists/hls/85fdc374-7bc7-4499-ba8a-d39650ec9316/99617af7-ef76-4b37-a575-80a58fd184a5-master.m3u8https://video.igem.org/videos/embed/hxE7yDUi3YS4TZ52mjjZ2G12201032025-08-13T11:09:13.314ZYES2025 Project PromotionsNOhttps://video.igem.org/w/m5Ne4iozbp4j3pVYWwzckihttps://video.igem.org/lazy-static/thumbnails/de476f57-4ff4-469d-a48a-6fcb1c88d148.jpgNEFU-China: Breaking Lignin's Code: A Climate Solution Hidden in Straw (2025) - Project Promotion...**Title:** Breaking Lignin's Code: A Climate Solution Hidden in Straw **Description:** The climate crisis is a major challenge humanity faces on the path to sustainable development. As is widely known, the primary method for disposing of crop straw is incineration, which releases large quantities of harmful substances and causes atmospheric pollution. The main components of straw are cellulose, hemicellulose, and lignin, with lignin utilization posing the greatest difficulty, while the utilization of cellulose and hemicellulose is relatively mature. Our project employs a combined chemical and biological approach: first converting lignin into vanillic acid through electrochemical catalysis, then generating acetaminophen via an unnatural metabolic pathway. Acetaminophen is a classic antipyretic and analgesic medication that can alleviate symptoms caused by influenza. Our project aims to reduce the climate crisis risks associated with straw burning by degrading lignin in straw, while also minimizing the hazards from the chemical production of acetaminophen. [Official Page](https://teams.igem.org/5974)https://static.igem.org/peertube/streaming-playlists/hls/a2a23c4b-222b-45e3-98db-fac7d56b7133/04286faa-e235-416d-b5dc-4c0242386a18-master.m3u8https://video.igem.org/videos/embed/m5Ne4iozbp4j3pVYWwzcki1200172025-08-13T11:03:22.544ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uHGjooMF8qUuwBPVGJaKkahttps://video.igem.org/lazy-static/thumbnails/ba8ba071-7a62-4c0b-8656-e1f6aecc7269.jpgIISc-Bengaluru: ARGUS-2440: Tackling Nitrate Leaching at the Root (2025) - Project Promotion [Ben...**Title:** ARGUS-2440: Tackling Nitrate Leaching at the Root **Description:** Excess nitrate ions in soil leach away due to irrigation, rainfall and weathering. They enter water bodies and prove detrimental to organisms relying on these freshwater sources. We propose to engineer a bacterium that can convert excess nitrate in the rhizosphere to ammonium, a molecule that is retained better in soil and taken up more efficiently by plants. These bacteria will be applied as a biofilm around plant roots, conferring additional resistance to drought, infection, and adverse environmental conditions. This model not only reduces the downstream effects of nitrate leaching, but also benefits crops by maintaining soil nitrogen content and retaining nutrients in an energetically favorable state for plant consumption. Our project thus provides a comprehensive agriculturally-motivated bioremediation solution against nitrate pollution. [Official Page](https://teams.igem.org/6006)https://static.igem.org/peertube/streaming-playlists/hls/e8923929-2e9e-487f-80bd-d658c35a822b/28e43b01-697c-4a4f-938a-3826e5ae7634-master.m3u8https://video.igem.org/videos/embed/uHGjooMF8qUuwBPVGJaKka123042025-08-13T11:04:23.363ZYES2025 Project PromotionsNOhttps://video.igem.org/w/pJPf8acATshxFWcfwziEhrhttps://video.igem.org/lazy-static/thumbnails/fa25696b-709a-4102-8365-f84519d94c5b.jpgUni-Padua-IT: Progerase - Engineering hope for progeria (2025) - Project Promotion [English]**Title:** Progerase - Engineering hope for progeria **Description:** Hutchinson-Gilford Progeria Syndrome, also known as Progeria, is a rare genetic disease affecting only 400 people worldwide. It is caused by progerin, an aberrant version on lamin A, that accumulates in the cells nucleus. Particularly, Progeria patients suffer from severe cardiovascular complications, the main cause of premature death, around 10 to 15 years. Progerase focuses on a new approach to tackle progerin accumulation and aims to draw attention to research into rare diseases such as Progeria. [Wiki](https://2025.igem.wiki/uni-padua-it) | [Official Page](https://teams.igem.org/5700)https://static.igem.org/peertube/streaming-playlists/hls/c03c8ad8-78cf-4cfe-9917-a1fc7285fe89/607c7a00-1502-4838-8879-6b55aa86885b-master.m3u8https://video.igem.org/videos/embed/pJPf8acATshxFWcfwziEhr1230282025-08-13T11:08:42.636ZYES2025 Project PromotionsNOhttps://video.igem.org/w/dqN4CkD9xzWgD4PRJZa65bhttps://video.igem.org/lazy-static/thumbnails/08e7b1a0-3eb7-468b-a5a9-6e1acfc4714c.jpgTJUSX: Programmable Probiotics, Real Therapies — The AIPPDD Platform (2025) - Project Promotion [...**Title:** Programmable Probiotics, Real Therapies — The AIPPDD Platform **Description:** Meet AIPPDD—an end-to-end platform that turns scattered evidence into deployable probiotic therapies. We curate a disease–probiotic knowledge base with an AI copilot, then use FBA/dFBA to model metabolic outputs and interspecies interactions such as cross-feeding or competition. Finally, we validate designs in the wet lab, showcasing a Parkinson’s nose-to-brain delivery use case with engineered L.p WCFS1 + Nissle 1917 and a quorum-sensing safety circuit for controllable colonization. [Wiki](https://2025.igem.wiki/tjusx) | [Official Page](https://teams.igem.org/5724)https://static.igem.org/peertube/streaming-playlists/hls/64a3e6c4-cb40-4347-aaec-ac7127a0839e/da69e9ed-8c3c-4e69-ab0a-41b369535c8b-master.m3u8https://video.igem.org/videos/embed/dqN4CkD9xzWgD4PRJZa65b1230332025-08-13T11:18:10.462ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2KVvKpmrCLhy2bj1HuyKzQhttps://video.igem.org/lazy-static/thumbnails/98e27d2a-44e2-4535-a558-848bfab79d48.jpgStuttgart: From Waste to Wealth: Microbial Recycling of Platinum Group Metals (2025) - Project Pr...**Title:** From Waste to Wealth: Microbial Recycling of Platinum Group Metals **Description:** Recycling Platinum Group Metals through bioleaching with oxalic acid–producing Corynebacterium glutamicum. Project of SynBio Stuttgart [Official Page](https://teams.igem.org/5829)https://static.igem.org/peertube/streaming-playlists/hls/0e3b1969-9aaa-44b0-b034-d8a1745a4716/4c9ec612-525f-4aa2-9de9-1206740e5193-master.m3u8https://video.igem.org/videos/embed/2KVvKpmrCLhy2bj1HuyKzQ10801192025-08-13T11:28:11.769ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nomHK3XmLRBPqatpXHYErdhttps://video.igem.org/lazy-static/thumbnails/f08b9d75-4673-472a-aa8b-2974388dcc64.jpgStanford: LiRA - Targeted Cancer Sensor-Therapy Actuation System (2025) - Project Promotion [Engl...**Title:** LiRA - Targeted Cancer Sensor-Therapy Actuation System **Description:** Music: lost in the ocean by Limujii https://soundcloud.com/limujii License: Creative Commons — Attribution 3.0 Unported — CC BY 3.0 Free Download / Stream: https://www.audiolibrary.com.co/limujii/lost-in-the-ocean Music promoted by Audio Library: https://youtu.be/Vx0Xvo60O3g Music: Above The Clouds by Hotham https://soundcloud.com/hothammusic License: Creative Commons — Attribution 3.0 Unported — CC BY 3.0 Free Download / Stream: https://www.audiolibrary.com.co/hotham/above-the-clouds Music promoted by Audio Library: https://youtu.be/StSD_kKK5Ik [Wiki](https://2025.igem.wiki/stanford) | [Official Page](https://teams.igem.org/5802)https://static.igem.org/peertube/streaming-playlists/hls/ad2f0b34-2df3-4556-9619-b07db71116fe/4899beca-1d66-46e8-91b1-11dcad4f2ecf-master.m3u8https://video.igem.org/videos/embed/nomHK3XmLRBPqatpXHYErd1220792025-08-13T11:29:13.306ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bTVqWtaGPiyuqb6rrGbw9ihttps://video.igem.org/lazy-static/thumbnails/4865d4d7-d672-46b1-84c0-ea681798f7c7.jpgUTDallas: Stabilizing mRNA with tardigrade IDPs (2025) - Project Promotion [English]**Title:** Stabilizing mRNA with tardigrade IDPs **Description:** Our project aims to protect mRNA against environmental stressors using intrinsically-disordered proteins (IDPs) found in tardigrades, with the aim of eliminating the need for cold-chain storage and transit for mRNA-based vaccines. [Wiki](https://2025.igem.wiki/utdallas) | [Official Page](https://teams.igem.org/5774)https://static.igem.org/peertube/streaming-playlists/hls/583b3f0b-6920-46e4-9ca6-ba2ce0d84389/2c88680d-4a7f-4380-b04c-1e277d3c30d3-master.m3u8https://video.igem.org/videos/embed/bTVqWtaGPiyuqb6rrGbw9i1160192025-08-13T11:28:40.565ZYES2025 Project PromotionsNOhttps://video.igem.org/w/5vhotM4ZmQMiBixZykvJYuhttps://video.igem.org/lazy-static/thumbnails/e06e4870-2902-4eb7-b8ad-331b9ed17583.jpgGEC-Guangzhou: Field-Ready Biosensor for Rapid Detection of Bacterial Wilt (2025) - Project Promo...**Title:** Field-Ready Biosensor for Rapid Detection of Bacterial Wilt **Description:** tomatoes and potatoes, with no effective cure. Early detection is crucial but challenging. Our team applies synthetic biology to create a low-cost, portable biosensor that turns pathogen signals into visible color changes. The system uses the QscR protein to sense AHL molecules released during early infection, triggering pigment production in engineered E. coli. Farmers can simply mix samples with the sensor and see results with the naked eye—enabling rapid, on-site detection and timely prevention. [Wiki](https://2025.igem.wiki/gec-guangzhou) | [Official Page](https://teams.igem.org/5877)https://static.igem.org/peertube/streaming-playlists/hls/247b3921-7d2a-416c-a952-2b388b82cc2c/7e2dde3e-4196-436c-8953-7d3590eccc5f-master.m3u8https://video.igem.org/videos/embed/5vhotM4ZmQMiBixZykvJYu1180252025-08-13T11:31:33.295ZYES2025 Project PromotionsNOhttps://video.igem.org/w/7i6dcNyUuSnbfpG4Bjymtkhttps://video.igem.org/lazy-static/thumbnails/f94e1a3b-460b-4118-bd65-70ff51b8369f.jpgBostonU: FloraDX by FloraSynse (2025) - Project Promotion [English]**Title:** FloraDX by FloraSynse **Description:** BostonU is excited to share that our project focuses on advancing women’s health through the development of an at-home diagnostic tool for monitoring vaginal health—specifically in the context of bacterial vaginosis (BV), a condition that affects nearly one in three women. Unlike current diagnostics that offer only a single snapshot of the vaginal microbiome, our approach uses daily sampling and continuous monitoring to better reflect the complexity and dynamic nature of this ecosystem. Our prototype integrates a biosensor to detect putrescine, a key biomarker of BV, alongside a pH sensor to assess overall vaginal health. By tracking these biomarkers over time, our goal is to develop a more accurate, data-driven, and personalized model of vaginal health. [Wiki](https://2025.igem.wiki/bostonu) | [Official Page](https://teams.igem.org/5875)https://static.igem.org/peertube/streaming-playlists/hls/32f9afe4-399f-4c8d-be10-effcc4cf5bc1/2ebdfb4f-7eff-4465-baca-f277c4f2e802-master.m3u8https://video.igem.org/videos/embed/7i6dcNyUuSnbfpG4Bjymtk1190672025-08-13T11:31:44.076ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bJ3nFftaAfuAtrCiyspSq6https://video.igem.org/lazy-static/thumbnails/a0b7d0d3-e5ef-440d-9b23-9bda659a643b.jpgRDFZ-CHINA: Smart Bacterial Therapy: Red-Light-Induced, Tumor-Targeted, and Self... (2025) - Proj...**Title:** Smart Bacterial Therapy: Red-Light-Induced, Tumor-Targeted, and Self-Eliminating **Description:** Colorectal cancer threatens millions as the world’s third most common cancer, with over 70% of cases diagnosed at advanced stages. We, RDFZ-CHINA 2025, introduce an innovative suppository carrying magnetic. We have constructed an engineered E.coli system that can precisely induce drug expression by red light. After entering the body, the bacteria will anchor to the tumor tissue and initiate the expression of drug genes. In the end, built-in suicide system ensures engineered bacteria safely degrade upon excretion. Our goal is to apply synthetic biology and innovative ideas to construct programmable engineered bacteria that can precisely and regularly express anti-cancer factors at the tumor sites of colorectal cancer, achieving precise targeted treatment. [Wiki](https://2025.igem.wiki/rdfz-china) | [Official Page](https://teams.igem.org/5922)https://static.igem.org/peertube/streaming-playlists/hls/56da167a-8440-4e56-ba9b-760f9b107af5/de933b7d-add5-412f-b300-1c9cb82607bf-master.m3u8https://video.igem.org/videos/embed/bJ3nFftaAfuAtrCiyspSq61230252025-08-13T11:32:47.466ZYES2025 Project PromotionsNOhttps://video.igem.org/w/58t7y6rN5pnShiRtyzD2vXhttps://video.igem.org/lazy-static/thumbnails/d1751503-76ab-4b30-858b-14d148026b9e.jpgLINKS-China: StrawTopia - A value-adding solution converting agricultural straws... (2025) - Proj...**Title:** StrawTopia - A value-adding solution converting agricultural straws into fashionable textile **Description:** LINKS-China uses synthetic biology, establishing an artificial scaffold on S. Cerevisiae to display lignin-degrading module on its surface. The degradation of lignin frees cellulose, which could then be converted into fibers. To optimize the fiber's performance, LINKS-China weaves high-performance proteins (squid beak proteins and bagworm slik protein) together with straw-derived cellulose fiber, thus creating a highly competitive fiber. This team promotion video demonstrates the values and the design of LINKS-China's project. [Wiki](https://2025.igem.wiki/links-china) | [Official Page](https://teams.igem.org/5714)https://static.igem.org/peertube/streaming-playlists/hls/216f7852-1c36-487b-abc2-36474efa7b05/c1f47c9a-2a99-4f71-b899-36b4655e7642-master.m3u8https://video.igem.org/videos/embed/58t7y6rN5pnShiRtyzD2vX930372025-08-13T11:41:52.175ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wtpU18nw59WGdgVkFf7YaKhttps://video.igem.org/lazy-static/thumbnails/9f7e373b-a45f-404e-a40b-225de2c950cc.jpgGreatBay-SCIE: ArMoldgeddon (2025) - Project Promotion [English]**Title:** ArMoldgeddon **Description:** A horror pandemic suddenly showed up in the humand society, infects and impacts human body in a very subtle way, the scientists realized the real evil one in the backstage of this pandemic, which is the mold that has been existing in the world for thousands years and more, and created a new method of mold removal, named "Armoldgeddon", using a combination of modified enzymes targeting critical cell wall components to terminate the molds, with geraniol a type of terpene to corrects the unpleasant experience when residents are using strong oxidizing agents, and finally beat those molds up, let all people return to their happy life again. [Wiki](https://2025.igem.wiki/greatbay-scie) | [Official Page](https://teams.igem.org/5614)https://static.igem.org/peertube/streaming-playlists/hls/f6c5f7e8-2889-4ab8-845a-4ec1f972bb85/a1cd50dd-543e-4237-8946-e98a58b1ebfb-master.m3u8https://video.igem.org/videos/embed/wtpU18nw59WGdgVkFf7YaK123510652025-08-13T11:40:22.905ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cA2mYbQV6b6eqV2qUHmXj6https://video.igem.org/lazy-static/thumbnails/ce7ae3c5-2d51-4bdf-b21d-cf90b046489d.jpgIonis-Paris: SPIKY'MUNE (2025) - Project Promotion [English]**Title:** SPIKY'MUNE **Description:** Cholera remains a major threat in climate-vulnerable regions of the Middle East, South Asia, and Sub-Saharan Africa, causing 1.4–4.3 million cases and 28,000–142,000 deaths annually. Rising temperatures, prolonged droughts, and extreme weather events intensify water scarcity and damage sanitation systems, creating conditions for outbreaks. Existing vaccines require cold storage and complex distribution, which are increasingly difficult to maintain under these conditions. We developed Spiky’mune, a revolutionary edible cholera vaccine, using Opuntia ficus-indica cactus. But why a cactus ? It require minimal water, no fertilizer, and thrive in extreme climates, enabling decentralized, low-cost cultivation in regions where conventional vaccine supply chains fail. We engineered Agrobacterium tumefaciens to deliver plant-compatible DNA encoding the cholera toxin B subunit, fused to a reporter gene, into cactus cells. Modified cells are selected and micropropagated into full plants, which can then be eaten to confer protection against cholera. Spiky’mune is heat-stable, locally produced, and adaptable to other pathogens. A climate-resilient vaccination strategy for communities on the front lines of climate-driven epidemics. [Wiki](https://2025.igem.wiki/ionis-paris) | [Official Page](https://teams.igem.org/5692)https://static.igem.org/peertube/streaming-playlists/hls/5dd4a70b-101b-4d45-84f0-ed1863cb1f85/5e72ee6b-c1b6-4057-bfab-19a1a5fe5798-master.m3u8https://video.igem.org/videos/embed/cA2mYbQV6b6eqV2qUHmXj612301262025-08-13T11:50:55.048ZYES2025 Project PromotionsNOhttps://video.igem.org/w/5rtHbJADHky62A2BTZUAj2https://video.igem.org/lazy-static/thumbnails/aef75388-0804-43df-9fa4-3c7f8a6033c5.jpgMacquarie-Australia: MethaNO (2025) - Project Promotion [English]**Title:** MethaNO **Description:** Methanol contamination in alcoholic beverages poses a significant threat to global public health, yet no accessible detection methods currently exist. Our team, MethaNO, from Macquarie University, aims to address this problem by engineering a synthetic biology-based biosensor for cheap and rapid methanol taint detection. Here, we propose a novel biosensor design that leverages an E. coli chassis to respond to harmful levels of methanol. [Wiki](https://2025.igem.wiki/macquarie-australia) | [Official Page](https://teams.igem.org/5787)https://static.igem.org/peertube/streaming-playlists/hls/23f339d0-8759-40d0-90ad-0e8f560ecfad/ef466378-7478-4063-a4d5-501eeddf73e0-master.m3u8https://video.igem.org/videos/embed/5rtHbJADHky62A2BTZUAj21210182025-08-13T11:57:12.835ZYES2025 Project PromotionsNOhttps://video.igem.org/w/8Kp9RgaNibTLduQ8HEy4rdhttps://video.igem.org/lazy-static/thumbnails/f8f75c32-fbb5-4ec2-a059-6f3c5aab612f.jpgUMass Amherst: CadmiCatch (2025) - Project Promotion [English]**Title:** CadmiCatch **Description:** CadmiCatch aims to prevent crops from taking up cadmium, a toxic heavy metal, through the use of genetically engineered P. putida. It is rhizobacterium, and is readily found near roots. Our project aims to sequester and take up cadmium using P. putida, thereby preventing cadmium poisoning, particularly amongst subsistence farming communities. [Wiki](https://2025.igem.wiki/umass-amherst) | [Official Page](https://teams.igem.org/5950)https://static.igem.org/peertube/streaming-playlists/hls/3ebf3894-2ea6-44d0-9805-5b7cf1e978e2/02d5dabb-0dc5-4a0a-be30-cfee3dda1909-master.m3u8https://video.igem.org/videos/embed/8Kp9RgaNibTLduQ8HEy4rd1230152025-08-13T11:57:20.552ZYES2025 Project PromotionsNOhttps://video.igem.org/w/s93yAnbLgg3GczXzE2Qj1jhttps://video.igem.org/lazy-static/thumbnails/561945a6-dfb4-46c1-91ac-897a483cf822.jpgHKU-HongKong: NPM-ZERO (2025) - Project Promotion [English]**Title:** NPM-ZERO **Description:** Air pollution from fossil fuels exacerbates respiratory diseases and climate change, demanding urgent transition to sustainable alternatives. The HKU iGEM team addresses this with NPM Zero: a synthetic biology platform using engineered E. coli to produce clean hydrogen fuel directly from sunlight. Crucially, hydrogen outperforms traditional renewables as an energy carrier—boosting higher energy density, point-to-point distribution flexibility, baseload reliability, and storage simplicity. Our "Z-E-R-O" system maximizes efficiency by redesigning bacterial electron transport chains and formate metabolism, enabling scalable, toxin-free hydrogen generation. By cutting emissions, lowering costs, and leveraging modular biotech, this innovation accelerates industrial decarbonization while attracting green investment. Together, we’re powering a future where clean energy safeguards both human health and planetary resilience. [Wiki](https://2025.igem.wiki/hku-hongkong) | [Official Page](https://teams.igem.org/5885)https://static.igem.org/peertube/streaming-playlists/hls/d3ad2259-0ad3-4651-85e7-dcb5a2cd45aa/9f6b3c04-0a3d-4d16-a7a5-fbdc1fe55f6f-master.m3u8https://video.igem.org/videos/embed/s93yAnbLgg3GczXzE2Qj1j1190862025-08-13T12:11:43.171ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vL7nGNgf98xrQntkR5Hssbhttps://video.igem.org/lazy-static/thumbnails/4492a2e3-6879-4676-8f04-e268baed70bb.jpgTU-Delft: Snaccine (2025) - Project Promotion [English]**Title:** Snaccine **Description:** Simple English version on iGEM Video Universe: https://video.igem.org/w/qWDcJeZiSvupU3n5qwXuf3 -- The bird flu crisis, seen through the eyes of a chicken. The TU Delft iGEM team introduces Snaccine - a breakthrough edible mRNA-based vaccine for poultry, delivered via phages and mixed directly into chicken feed. No needles, no specialized staff - just faster, easier protection for birds. [Wiki](https://2025.igem.wiki/tu-delft) | [Official Page](https://teams.igem.org/5649)https://static.igem.org/peertube/streaming-playlists/hls/f101acdd-b498-4a38-9207-785b447a971e/cf429067-d7f6-4042-92a9-6b0f4dd6f463-master.m3u8https://video.igem.org/videos/embed/vL7nGNgf98xrQntkR5Hssb1140612025-08-13T12:08:47.251ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qCZDmpgjZN2ncgN9bVxGYjhttps://video.igem.org/lazy-static/thumbnails/067528ed-d8af-4162-b6ad-5c25bd55b563.jpgSCU-China: TasAnchor (2025) - Project Promotion [English]**Title:** TasAnchor **Description:** Engineered bacteria offer significant potential for environmental remediation, particularly in sewage treatment.In practical applications. engineered bacteria have problems such as easy loss, poor stability and low cell density.To address these challenges, we developed a whole-cell immobilization platform for Bacillus subtilis through genetic engineering of the natural biofilm protein TasA. This modified TasA serves as a specific "molecular anchor," enabling efficient bacterial adhesion to solid surface in the sewage treatment scene for stable biofilm formation. For application, we adhere engineering bacteria to the polystyrene filter material of the biological aerated filter to play a function. On this basis, the platform is further upgraded to a "full-process workstation" for heavy metal cadmium ion sensing-adsorption-recovery. For biosecurity risks, we design density-controlled suicide switch system. Detachment from the solid surface reduces cell density, triggering suicide switch and cell death to prevent environmental release. This safe, effective TasAnchor provides stable immobilization. By exchanging TasA binding partners, it can be adapted for diverse sewage treatment applications, significantly improving efficiency and sustainability [Wiki](https://2025.igem.wiki/scu-china) | [Official Page](https://teams.igem.org/5810)https://static.igem.org/peertube/streaming-playlists/hls/c785a0c0-4be4-4b87-bfad-493467d8efca/70ccb26c-311c-4193-8fc5-8b90b54f5944-master.m3u8https://video.igem.org/videos/embed/qCZDmpgjZN2ncgN9bVxGYj1170732025-08-13T12:10:11.416ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qxcN4A41KotVeaa8Rp4LRvhttps://video.igem.org/lazy-static/thumbnails/c120be4e-2c25-42b7-ad28-555c35023b1d.jpgXJTLU-Software: Antibacterial peptide:the breaker who ended the crisis of antibi... (2025) - Proj...**Title:** Antibacterial peptide:the breaker who ended the crisis of antibiotic resistance! **Description:** As antibiotic resistance continues to worsen, traditional antibiotic treatment strategies are facing serious challenges. Antimicrobial peptides (AMPs) as a potential alternative to antibiotics have attracted extensive attention from the academic community due to their unique antimicrobial mechanism and low risk of drug resistance. However, the research and application of antimicrobial peptides still face many challenges, such as insufficient antimicrobial activity and unclear toxicity. Therefore, the XJTLU-Software team plans to further address the antibiotic problem by integrating multiple authoritative databases, building a new and large dataset of antimicrobial peptides, and developing a user-friendly system to meet the diverse needs of different users for antimicrobial peptides. [Wiki](https://2025.igem.wiki/xjtlu-software) | [Official Page](https://teams.igem.org/5579)https://static.igem.org/peertube/streaming-playlists/hls/c6b6a733-34ff-473c-b4f5-5c8c25a9dd2f/943087ac-afe5-45b5-9a37-5b254409c38f-master.m3u8https://video.igem.org/videos/embed/qxcN4A41KotVeaa8Rp4LRv1200162025-08-13T12:12:48.403ZYES2025 Project PromotionsNOhttps://video.igem.org/w/jKqTeEJqPAecGiau7tfkHMhttps://video.igem.org/lazy-static/thumbnails/7d7e1ee1-efb0-453b-adfb-709c4c840655.jpgZZU-China: ExoAPT-CRISPR: A Targeted Detection Platform for Breast Cancer Exosom... (2025) - Proj...**Title:** ExoAPT-CRISPR: A Targeted Detection Platform for Breast Cancer Exosome Biomarkers **Description:** This project aims to develop a breast cancer exosome detection platform based on the combination of exosome aptamer and the CRISPR-Cas14a system, integrating the high-specificity recognition capability of aptamers with the signal amplification advantage of the CRISPR system to establish a rapid qualitative/quantitative detection system. High-affinity aptamers are screened and their complementary strands are designed; upon aptamer binding to the target protein, the CRISPR-Cas14a system is activated, efficiently cleaving a fluorescent probe to enable highly sensitive detection of breast cancer biomarkers. The project emphasizes modular design and standardization of components to enhance system versatility and operational simplicity. In addition, the team has achieved expression and purification of Cas14a in a prokaryotic system, optimized signal amplification reaction conditions, and preliminarily verified the feasibility of the platform in experimental settings. This research is expected to provide a convenient, non-invasive, and sensitive new approach for early breast cancer screening, and to promote the application of functional nucleic acids and synthetic biology in clinical diagnostics. [Wiki](https://2025.igem.wiki/zzu-china) | [Official Page](https://teams.igem.org/5822)https://static.igem.org/peertube/streaming-playlists/hls/97d4d01b-189e-4c17-884d-a8779896b643/d8fd2e45-7c76-407b-8158-8370dcf1336e-master.m3u8https://video.igem.org/videos/embed/jKqTeEJqPAecGiau7tfkHM1110232025-08-13T12:14:46.105ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cAHVuRCsJYJvmcqmirGusNhttps://video.igem.org/lazy-static/thumbnails/bfe62a0b-cb05-47d6-9e0a-c796edd83321.jpgIIT-D: EnzyCaps (2025) - Project Promotion [English]**Title:** EnzyCaps **Description:** EnzyCaps is a novel approach to biomanufactuing, utilizing bacterial microcompartments for temperature/salt controlled production of enzymes and proteins. The applications range from production of Whey proteins, large scale industrial production of digestive enzymes to development of probiotic solutions. [Official Page](https://teams.igem.org/5859)https://static.igem.org/peertube/streaming-playlists/hls/5deda626-1a1a-4c22-bcd8-c30c7014d272/cf47bbb6-b1d5-4037-9dbd-4379f9c04961-master.m3u8https://video.igem.org/videos/embed/cAHVuRCsJYJvmcqmirGusN1230202025-08-13T12:20:13.123ZYES2025 Project PromotionsNOhttps://video.igem.org/w/n3h5gsHNk7Xqy6e5UC5hH1https://video.igem.org/lazy-static/thumbnails/28994421-82b6-4bc4-9477-57dbbdb53f88.jpgUniMuenster: Bactolyze – A Modular Platform to Produce, Screen, and Model Endoly... (2025) - Proj...**Title:** Bactolyze – A Modular Platform to Produce, Screen, and Model Endolysins **Description:** Antibiotic resistance is one of today’s greatest health challenges. Bactolyze is our innovative approach to overcoming it. We are building a modular pipeline for endolysin discovery and optimization, combining in vitro production and functional screening with molecular dynamics–based modeling of antimicrobial peptides. These peptides will be fused to endolysins and phage capsid proteins to improve delivery and biofilm penetration, opening new possibilities for precision antibacterial therapies. [Wiki](https://2025.igem.wiki/unimuenster) | [Official Page](https://teams.igem.org/5946)https://static.igem.org/peertube/streaming-playlists/hls/aa614e19-fba6-4e87-a04a-4e7a0445dd6a/972e07e4-60d0-44aa-a725-a59c8df0f6ad-master.m3u8https://video.igem.org/videos/embed/n3h5gsHNk7Xqy6e5UC5hH11230682025-08-13T12:21:47.336ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rm84bhcJvuC9o13hBCyBZ6https://video.igem.org/lazy-static/thumbnails/1b40649b-7583-4b03-84ec-1c41dd810c91.jpgVIS-Romania: Promnesis - A Dual Therapy for Alzheimer's Disease (2025) - Project Promotion [English]**Title:** Promnesis - A Dual Therapy for Alzheimer's Disease **Description:** Promnesis targets phosphorylated tau protein in Alzheimer's, both intracellularly and extracellularly, through our TRI-TAC and TauTuner. This approach has the potential to slow down disease progression and perhaps even ameliorate symptoms in the early stages. Beyond the therapeutic modules of Promnesis, an extra layer of safety, through a logic gate, is implemented, allowing for targeted therapeutic release and disease detection. [Wiki](https://2025.igem.wiki/vis-romania) | [Official Page](https://teams.igem.org/5912)https://static.igem.org/peertube/streaming-playlists/hls/cd43b087-2731-49db-b9ea-b50700219dfb/ed643a14-7811-4396-bad8-1d7b3c689efb-master.m3u8https://video.igem.org/videos/embed/rm84bhcJvuC9o13hBCyBZ61230712025-08-13T12:26:05.577ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3fBo6frtXKvvvnoY8pZHDPhttps://video.igem.org/lazy-static/thumbnails/927d0c83-b8ae-4497-9d6a-02f91b795a45.jpgHUST-China: SQUOILENE：Sustainable Squalene from Oil-based Waste via Engineered Y... (2025) - Proj...**Title:** SQUOILENE：Sustainable Squalene from Oil-based Waste via Engineered Yarrowia lipolytica **Description:** #2025 HUST-China Promotion video. Squalene is a valuable ingredient in cosmetics, nutraceuticals, and pharmaceuticals, but it is often sourced from shark liver oil or scarce plant oils. SQUOILENE offers a greener alternative — using engineered Yarrowia lipolytica to transform waste cooking oils into high-purity, sustainable squalene. This synthetic biology approach: Reduces reliance on endangered marine species. Upcycles oil-based by-products into a valuable resource. Supports a circular and eco-friendly production model. In our 8-bit pixelated world, Waste Oil runs rampant. Our hero — the engineered yeast strain — sets out on an epic quest, battling greasy villains and unlocking the treasure of pure, eco-friendly squalene. Through clever genetic upgrades and a circular production strategy, the journey proves that science can be both powerful and playful. Press ▶ to join the adventure and join us in shaping a future where beauty and sustainability go hand in hand.! #SyntheticBiology #Squalene #SQUOILENE#iGEM2025 [Wiki](https://2025.igem.wiki/hust-china) | [Official Page](https://teams.igem.org/5569)https://static.igem.org/peertube/streaming-playlists/hls/123c7e8c-d206-4125-98a7-3b5ffb2f520d/e47ef2fa-f5ed-4a55-b2f9-2c312ac12ca1-master.m3u8https://video.igem.org/videos/embed/3fBo6frtXKvvvnoY8pZHDP1220982025-08-13T12:26:13.876ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9nA85Gz19zhiDeHSrbwiHdhttps://video.igem.org/lazy-static/thumbnails/f2157473-ad60-4906-8999-93d89e013778.jpgETH-Zurich: TERRA - Rare Earth Element Extraction with Algae (2025) - Project Promotion [English]**Title:** TERRA - Rare Earth Element Extraction with Algae **Description:** Rare earth elements are essential for smartphones, electric cars, wind turbines, and more — but less than 1% are recycled. Mining new REEs is costly, environmentally damaging, and tied to global supply risks. TERRA (Tfd Expressing RRE Recovering Algae) uses genetically engineered microalgae that can absorb even trace amounts of REEs from waste, including toxic red mud from aluminium production. This approach both recovers critical materials and cleans up hazardous waste. It’s a sustainable, low-cost way to turn pollution into opportunity. [Wiki](https://2025.igem.wiki/eth-zurich) | [Official Page](https://teams.igem.org/6022)https://static.igem.org/peertube/streaming-playlists/hls/43ccc1c6-5bc1-4021-bbfc-0b1c02bcc2aa/2d759e74-26ea-41e8-a0cb-d1efad8d60d0-master.m3u8https://video.igem.org/videos/embed/9nA85Gz19zhiDeHSrbwiHd1230262025-08-13T12:27:15.352ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oU9D8b3Jf9sCArHSqK8hAkhttps://video.igem.org/lazy-static/thumbnails/6813e6c0-23e8-4c2b-b488-fa3898d604d6.jpgNAWI Graz Austria: Knotaut – Combating the spread of Japanese Knotweed by hijack... (2025) - Proj...**Title:** Knotaut – Combating the spread of Japanese Knotweed by hijacking the RNAi-pathway **Description:** Japanese Knotweed is an invasive species in Europe, capable of growing up to 30 cm per day and spreading rapidly through vegetative propagation from even the smallest rhizome fragments, threatening local ecosystems, promoting soil erosion, and damaging infrastructure. To contain its spread, we’re focusing on turning the RNAi-pathway, a part of its own immune-system, against itself. With our project Knotaut we are developing a double-stranded RNA (dsRNA) agent specific for Japanese Knotweed, offering an effective and environmentally friendly alternative to chemical herbicides. [Wiki](https://2025.igem.wiki/nawi-graz-austria) | [Official Page](https://teams.igem.org/5880)https://static.igem.org/peertube/streaming-playlists/hls/b9710d1a-a827-4f33-92b7-81b130e85dcf/d3cfb674-2fb2-4cc0-8af0-f403bf462deb-master.m3u8https://video.igem.org/videos/embed/oU9D8b3Jf9sCArHSqK8hAk1200682025-08-13T12:28:07.717ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9sNrXsL3uEqQub1SQRJp6dhttps://video.igem.org/lazy-static/thumbnails/cb610f42-c3c0-44eb-98cd-9a11955ce6da.jpgPCA Korea: BacteriArt (2025) - Project Promotion [English]**Title:** BacteriArt **Description:** In this video, we introduce "BacteriArt", a genetically modified E. coli system that produces natural dyes of different colors. The modern world's synthetic dye production process produces loads of harmful chemical waste, poisoning our environment. The alternative, natural dye, can solve this problem but suffers from high cost and labor. Through BacteriaArt, we can produce natural dyes while decreasing the cost and labor through synthetic biology, showing the potential of synthetic biology to protect the environment. [Official Page](https://teams.igem.org/5995)https://static.igem.org/peertube/streaming-playlists/hls/44871254-8083-42bd-977a-3fa69433628a/3cc76bba-ddbb-4121-9cc2-0d4489a3ca26-master.m3u8https://video.igem.org/videos/embed/9sNrXsL3uEqQub1SQRJp6d1230692025-08-13T12:29:50.467ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eP39fqTzs2tjHEpYUJ1Bu2https://video.igem.org/lazy-static/thumbnails/794c949c-dd33-4853-86dd-5fa62f614e69.jpgBarcelona-UB: Skippit: Unlocking RNA control beyond the old playbook (2025) - Project Promotion [...**Title:** Skippit: Unlocking RNA control beyond the old playbook **Description:** SKIPPIT harnesses the power of structural RNA elements (SREs) by fusing them with ligand-responsive RNA elements (aptamers) to create novel riboswitches that precisely control protein production. As a proof of concept, we are developing a system capable of regulating protein elongation with high specificity. Beyond this, we have built a software tool that automates the modelling, scoring, and visualisation of these systems for any SRE–aptamer combination, transforming a niche experimental challenge into a standard, accessible resource in the synthetic biology toolbox. [Wiki](https://2025.igem.wiki/barcelona-ub) | [Official Page](https://teams.igem.org/5622)https://static.igem.org/peertube/streaming-playlists/hls/6fd81478-429b-4cdf-b5f9-6f9312220ae5/e31ab341-8b23-41f8-877a-33d20604c601-master.m3u8https://video.igem.org/videos/embed/eP39fqTzs2tjHEpYUJ1Bu212301012025-08-13T12:31:44.560ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nSk9azaK4dxb11j4sCarkDhttps://video.igem.org/lazy-static/thumbnails/63b4d2c4-4f96-4327-b806-b9729caf393e.jpgBiotech XJUH: Biotech-XJUH: How microbes help with earth (2025) - Project Promotion [English]**Title:** Biotech-XJUH: How microbes help with earth **Description:** The video depicts the general overview of our project. You can learn about the problem we aim to solve — environmental contamination caused by plastic film residues. The general principles and experimental steps are also presented in the video, allowing you to gain a basic understanding of our research. We also include elements of human practices and dry parts. We hope the video can be attractive to more people, even some of them don't have scientific background. [Wiki](https://2025.igem.wiki/biotech-xjuh) | [Official Page](https://teams.igem.org/5943)https://static.igem.org/peertube/streaming-playlists/hls/b116e572-c289-434a-9e55-1a01c738709f/52342e13-6ce4-428b-bb72-5f1fe570203b-master.m3u8https://video.igem.org/videos/embed/nSk9azaK4dxb11j4sCarkD1220152025-08-13T12:33:07.334ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2CTAjFH7S5SZNTZvgZUQazhttps://video.igem.org/lazy-static/thumbnails/e8a81a8a-e63a-4111-b29f-9e246fa19d19.jpgJilin-China: Farm to Pharmacy: Ferulic-Acid-Triggered Smart Bacteria for Diabetes (2025) - Projec...**Title:** Farm to Pharmacy: Ferulic-Acid-Triggered Smart Bacteria for Diabetes **Description:** Living with diabetes is tough—and treatment shouldn’t make it tougher. our project centers on a natural molecule quietly hidden in whole grains—ferulic acid, commonly found in corn bran, brown rice, and oats. As a key component of high-fiber diets recommended for people with diabetes, ferulic acid became our inspiration to design a smarter solution: a gut-friendly E. coli strain that senses this dietary molecule and, in response, automatically produces GLP-1, a hormone that lowers blood glucose—no injections needed. Powered by the PadR/PadC sensing system, our engineered bacteria detect ferulic acid inside the gut. We further enhanced the system with a quorum sensing–based oscillatory circuit, allowing the bacterial population to rhythmically express GLP-1 while self-regulating density, which ensures safety and sustainability. Compared with traditional therapies, our design avoids injection pain, boosts user compliance, and bridges therapy with green eating habits—blurring the line between “food” and “medicine.” We believe this diet-driven design isn’t just for diabetes—it lays the foundation for a whole new genre of synthetic biology therapies for chronic metabolic conditions, guided by everyday meals. [Official Page](https://teams.igem.org/5917)https://static.igem.org/peertube/streaming-playlists/hls/0d3fb57c-999e-464e-a5fb-295d1dd614bb/b0bda29e-f139-4139-9cd1-507d8e1676a8-master.m3u8https://video.igem.org/videos/embed/2CTAjFH7S5SZNTZvgZUQaz1190382025-08-13T12:43:54.450ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bPvdZ7nagxnMcSV9jXCNAfhttps://video.igem.org/lazy-static/thumbnails/7b55472c-c5fd-430e-b9d3-7ca211868f9d.jpgUtrecht: GutFeeling: Fishing for Solutions! (2025) - Project Promotion [English]**Title:** GutFeeling: Fishing for Solutions! **Description:** Promotion video for the iGEM Utrecht 2025 team project: GutFeeling (Fishing for Solutions) [Wiki](https://2025.igem.wiki/utrecht) | [Official Page](https://teams.igem.org/5795)https://static.igem.org/peertube/streaming-playlists/hls/579d5a88-432a-40c0-a93a-50755177e00a/48e59711-61ec-46f6-820e-26599ccdad1c-master.m3u8https://video.igem.org/videos/embed/bPvdZ7nagxnMcSV9jXCNAf1210942025-08-13T12:37:12.283ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6VvfCU4WhH8X6ptpnDS7X3https://video.igem.org/lazy-static/thumbnails/7d14bbcb-c153-4339-8bd0-916f153ee8bf.jpgOxford: CASPER - The fight against AMR (2025) - Project Promotion [English]**Title:** CASPER - The fight against AMR **Description:** Welcome to CASPER, the Oxford iGEM 2025 team's project. This is our promotional video. Enjoy! [Wiki](https://2025.igem.wiki/oxford) | [Official Page](https://teams.igem.org/5554)https://static.igem.org/peertube/streaming-playlists/hls/2ff623f8-724d-4357-ae33-763361a2c8d0/dcbe2675-ac8f-4468-b75f-b2762ae2d559-master.m3u8https://video.igem.org/videos/embed/6VvfCU4WhH8X6ptpnDS7X31230402025-08-13T12:49:21.022ZYES2025 Project PromotionsNOhttps://video.igem.org/w/kWKRn7Cim7GsYzKp75uuMchttps://video.igem.org/lazy-static/thumbnails/0f8792c5-8709-4dbb-8913-0bc609559a4d.jpgSPC: Microplastics, PET, and our solution (2025) - Project Promotion [English]**Title:** Microplastics, PET, and our solution **Description:** Microplastics are becoming a more serious problem day by day, and we at SPC are coming up with a solution. [Wiki](https://2025.igem.wiki/spc) | [Official Page](https://teams.igem.org/5593)https://static.igem.org/peertube/streaming-playlists/hls/a182d283-c0a1-4ee7-a576-839a354a58cd/d948771d-e5c6-4200-b625-759266f97547-master.m3u8https://video.igem.org/videos/embed/kWKRn7Cim7GsYzKp75uuMc1210372025-08-13T12:58:52.841ZYES2025 Project PromotionsNOhttps://video.igem.org/w/p83HEvts33N5FgZtXBVJy5https://video.igem.org/lazy-static/thumbnails/229debdb-72ea-451a-86a6-1c91cfb16119.jpgKCL-UK: INFECHECK - because we can’t cure what we can’t find (2025) - Project Promotion [English]**Title:** INFECHECK - because we can’t cure what we can’t find **Description:** One disease. Two billion lives affected. That’s one in four people on Earth. Tuberculosis (TB) remains humanity’s most persistent infectious killer - and its hidden form, latent TB, can strike without warning. Yet current tests are slow, costly, and often out of reach for the communities hit hardest. INFECHECK is creating a fast, affordable paper-strip test that detects RNA biomarkers unique to latent TB. Just a quick finger-prick, rapid RNA extraction, and a clear colour change - results in minutes, no lab, no electricity, no specialists needed. The World Health Organisation aims to end TB by 2035. We believe it starts with better diagnostics. INFECHECK – because we can’t cure what we can’t find. [Wiki](https://2025.igem.wiki/kcl-uk) | [Official Page](https://teams.igem.org/5962)https://static.igem.org/peertube/streaming-playlists/hls/bb3e1220-82aa-4a74-beee-e0cc2de64c44/deb01c72-0f4d-44e4-b64c-105b3bcd9804-master.m3u8https://video.igem.org/videos/embed/p83HEvts33N5FgZtXBVJy51220942025-08-13T12:50:04.421ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qTnoVpTASS23YzhziTWo8Ghttps://video.igem.org/lazy-static/thumbnails/84b60341-1bb3-42f5-a1dc-9e35d4f84238.jpgUprize-I: Root Rot Nemesis: A Novel Agricultural Microbial Agent (2025) - Project Promotion [Engl...**Title:** Root Rot Nemesis: A Novel Agricultural Microbial Agent **Description:** Root rot disease is a common disease in agriculture, causing significant economic losses to farmers every year. To address this, we destroy the cell walls of pathogenic fungi by introducing into chassis bacteria genes capable of secreting chitinase and chitin synthase inhibitors. Additionally, we have conducted numerous related human practices activities, including communication with scientists, farmers, microbial agent manufacturers, and lawyers, to refine our product design. Our goal is to develop an agricultural microbial agent capable of treating root rot disease. [Wiki](https://2025.igem.wiki/uprize-i) | [Official Page](https://teams.igem.org/5937)https://static.igem.org/peertube/streaming-playlists/hls/c9877203-4a86-4c54-b2bd-c23a2c1bc856/106dc76f-b87c-4c54-ba05-2bba79a341e3-master.m3u8https://video.igem.org/videos/embed/qTnoVpTASS23YzhziTWo8G12006242025-08-13T13:06:24.834ZYES2025 Project PromotionsNOhttps://video.igem.org/w/dsVw4QnWCxLgFjsrATKGyLhttps://video.igem.org/lazy-static/thumbnails/980c8d2f-ebd2-4d5d-b651-e4ab2f2e2031.jpgNUS-Singapore: JustBITE: A Bite into The Future (2025) - Project Promotion [English]**Title:** JustBITE: A Bite into The Future **Description:** JustBITE reimagines microbes as a self-sufficient local food source - one bite at a time. [Wiki](https://2025.igem.wiki/nus-singapore) | [Official Page](https://teams.igem.org/5771)https://static.igem.org/peertube/streaming-playlists/hls/64effbdb-3db4-41fb-929e-aa4288e19474/1fdf7c6d-7454-44be-8605-c38f46eabcd4-master.m3u8https://video.igem.org/videos/embed/dsVw4QnWCxLgFjsrATKGyL12301032025-08-13T13:44:16.568ZYES2025 Project PromotionsNOhttps://video.igem.org/w/87NFRbkgnLrdHuRfdNFumwhttps://video.igem.org/lazy-static/thumbnails/45a79ae5-573e-45d1-863a-09a448ec3b4a.jpgImperial: The Rise of Sir Loin (2025) - Project Promotion [English]**Title:** The Rise of Sir Loin **Description:** Meat is a nutritiously complete protein source. However, it is primarily sourced from animal slaughter, resulting in greenhouse gas emissions, high water consumption, and a substantial waste footprint. Such unsustainable nature creates an urgent need for alternative protein production methods. Lab-grown meat is an appealing solution, but remains a luxury novelty product. We are using Pichia pastoris to target the primary cost contributor — growth factors. This methylotrophic yeast produces, glycosylates, and natively secretes high titres of complex recombinant proteins. Combined with our engineering to optimize yield and reduce side products, growth factors synthesized by Pichia enable affordable cultivated meat. Help us tackle environmental damage, animal cruelty, and food insecurity — one protein at a time. [Wiki](https://2025.igem.wiki/imperial) | [Official Page](https://teams.igem.org/5916)https://static.igem.org/peertube/streaming-playlists/hls/39a33484-7504-4f1c-bebe-20627953c50e/8573024d-08d1-4523-b291-b063d81479d8-master.m3u8https://video.igem.org/videos/embed/87NFRbkgnLrdHuRfdNFumw1230402025-08-13T13:06:29.993ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vUQkisMYbNKiZQjmY67721https://video.igem.org/lazy-static/thumbnails/d27b1b76-ae21-4b95-b7cc-0eb80d49a97a.jpgIISER-Kolkata: ReSET - Reprogramming the Suppressive Environment of TME (2025) - Project Promotio...**Title:** ReSET - Reprogramming the Suppressive Environment of TME **Description:** Cancer has learned to turn our own defences against us, using the protein CD38 to empower regulatory T cells (Tregs) that silence immune attacks. Our team at iGEM IISER Kolkata is engineering a living therapeutic probiotic designed to infiltrate tumours and flip the script. Once inside, it reprograms Tregs from suppressors into frontline fighters, dismantling cancer’s shield from within. By harnessing synthetic biology for precise immune modulation, we aim to inspire a new class of targeted, safer, and smarter cancer therapeutics. This is more than just a treatment - it’s rewriting the rules of the cellular battlefield. [Wiki](https://2025.igem.wiki/iiser-kolkata) | [Official Page](https://teams.igem.org/5941)https://static.igem.org/peertube/streaming-playlists/hls/f2397bba-533a-450d-9932-26115886d852/a9ebd158-3ec6-4688-9814-d85d8c6ae7f4-master.m3u8https://video.igem.org/videos/embed/vUQkisMYbNKiZQjmY677211230572025-08-13T13:08:09.552ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3qLpoHRE7WtY5BZrhQEXRghttps://video.igem.org/lazy-static/thumbnails/b67ca0fa-b911-4dde-b8fe-28888bef0cba.jpgIISER-Berhampur: POSEIDON - Phyto Protein-Optimized System for Environmental Ion... (2025) - Proj...**Title:** POSEIDON - Phyto Protein-Optimized System for Environmental Ion DetoxificatiON **Description:** Metal contamination is a growing global crisis, polluting rivers, lakes, and groundwater with toxic elements like Mercury, Chromium, Aluminium and Iron. Released through industry, mining, and agriculture, these metals accumulate in ecosystems, harm biodiversity, and cause severe human health problems. Conventional treatment methods are costly, energy-intensive, and often create new pollutants. Project POSEIDON from Team iGEM - IISER Berhampur offers an alternative approach, by harnessing nature's metal binding machinery against toxic metals to create a biodegradable, biopolymer-based filtration system that efficiently removes toxic metals from water. This nature-inspired approach aligns with green chemistry and sustainability, repurposing biological principles into affordable, eco-friendly, scalable filtration mechanisms. It sets a foundation for further innovations for water purification, aimed at protecting residents in industrial and contaminated regions. Project POSEIDON addresses one of today's most urgent environmental challenges, ensuring clean, safe water for the future. [Wiki](https://2025.igem.wiki/iiser-berhampur) | [Official Page](https://teams.igem.org/5957)https://static.igem.org/peertube/streaming-playlists/hls/13a77e08-00ee-4cc1-a8c3-2e33086aa295/da6bb929-ee74-4505-9a57-eaa67ee961e3-master.m3u8https://video.igem.org/videos/embed/3qLpoHRE7WtY5BZrhQEXRg12001232025-08-13T13:14:30.286ZYES2025 Project PromotionsNOhttps://video.igem.org/w/r6CVPe6MqhSbQAmtmH4YWWhttps://video.igem.org/lazy-static/thumbnails/5207f5f9-1403-4356-807c-d6146f7d94a1.jpgRUBochum: Glow to Grow (2025) - Project Promotion [English]**Title:** Glow to Grow **Description:** Glow to Grow – Rethinking Desferrioxamine Production Every year, up to 400,000 children are born with hereditary anemias such as β-thalassemia and sickle cell disease. Lifesaving blood transfusions, while essential, lead to dangerous iron overload. If left untreated, this condition can cause organ failure and prove fatal. Desferrioxamine is a powerful iron chelator that removes excess iron from the body. However, it remains expensive and inaccessible in many of the regions most affected, including sub-Saharan Africa and Southeast Asia. Our mission: to make Desferrioxamine production more affordable by using Rhodococcus opacus 1CP as a novel biomanufacturing platform, boosting efficiency and reducing production costs. [Wiki](https://2025.igem.wiki/rubochum) | [Official Page](https://teams.igem.org/5583)https://static.igem.org/peertube/streaming-playlists/hls/cb3df164-29a0-42f4-97cb-c9f2f91a579a/bf011f48-7ae8-4dec-a77a-872997b9a40a-master.m3u8https://video.igem.org/videos/embed/r6CVPe6MqhSbQAmtmH4YWW1200242025-08-13T13:15:29.326ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2HBuN6Q5a5fXDC2LNFgwu3https://video.igem.org/lazy-static/thumbnails/06c28c2d-c5b8-44da-8525-17201e382a9e.jpgEPFL: Pyronix: The Next Generation of Firefighting (2025) - Project Promotion [English]**Title:** Pyronix: The Next Generation of Firefighting **Description:** Pyronix is a synthetically produced hydrogel designed to contain wildfires. Eco-friendly and biodegradable, it offers a new way to fight fires without harming the environment. Made of cellulose, chitosan, and silica, all produced by engineered microorganisms, our gel forms a fire-retardant barrier that protects ecosystems without leaving toxic residues. Deployed by autonomous drones, Pyronix supports safer, smarter wildfire containment. [Wiki](https://2025.igem.wiki/epfl) | [Official Page](https://teams.igem.org/5590)https://static.igem.org/peertube/streaming-playlists/hls/0de8823a-5178-47c0-b03d-489c777d089a/2d9bb519-fc27-42a6-83a4-c951e68e942f-master.m3u8https://video.igem.org/videos/embed/2HBuN6Q5a5fXDC2LNFgwu312307842025-08-13T13:14:04.990ZYES2025 Project PromotionsNOhttps://video.igem.org/w/m4ziJ1CnRqBcAHawfRVd4ihttps://video.igem.org/lazy-static/thumbnails/d7dfad65-d5e2-4d9a-a393-3513e6b3a140.jpgSCAU-China: Surfing TentaRobot——Your Tiny Tidal Sensor robot，Waving Tentacles,Ri... (2025) - Proj...**Title:** Surfing TentaRobot——Your Tiny Tidal Sensor robot，Waving Tentacles,Riding Waves, Cleaning metal! **Description:** Mangrove forests, vital coastal ecosystems, face severe heavy metal pollution from industrial and urban waste, threatening biodiversity and human health. Traditional cleanup methods are costly, inefficient, or environmentally harmful.To combat this, our team developed Surfing TentaRobot, an innovative system combining synthetic biology and environmental engineering. We engineered Bacillus subtilis to form specialized biofilms containing metallothioneins for heavy metal adsorption. These bacteria also produce carbonic anhydrase to mineralize trapped metals into stable precipitates. A smart osmotic switch synchronizes these processes with tidal cycles, while a lactose-dependent safety mechanism prevents environmental release. Through extensive lab testing, we optimized biofilm formation and metal-binding efficiency. We designed the Mangrove BioReef Module (MBRM) to deploy these biofilms while withstanding tidal forces. Our team also engaged with local communities and scientists to ensure practical implementation. We conducted educational activities to raise awareness about mangrove conservation. These human practices helped bridge the gap between laboratory research and ecological application, creating a sustainable solution for coastal protection. [Wiki](https://2025.igem.wiki/scau-china) | [Official Page](https://teams.igem.org/5976)https://static.igem.org/peertube/streaming-playlists/hls/a27687a1-a0f0-48a6-b29a-555c918fd287/f6f72ab8-b5d8-42b5-83c7-2a48b4e0741f-master.m3u8https://video.igem.org/videos/embed/m4ziJ1CnRqBcAHawfRVd4i1230332025-08-13T13:17:06.244ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nrnb4Bx8pFy76WQYsorxuJhttps://video.igem.org/lazy-static/thumbnails/0efecad2-453d-46a6-9d04-60213b91fc59.jpgSCAU Guangzhou: High-Folate Soy Health for All！ (2025) - Project Promotion [English]**Title:** High-Folate Soy Health for All！ **Description:** Folic acid and vitamin B9 are important vitamins in the human body. However, folic acid cannot be synthesized independently in the human body and must be obtained from the outside. About 50% of the world's population is insufficient folic acid intake. People in underdeveloped areas have a relatively large gap in folic acid due to their dietary structure and economic conditions.Our research is that we hope to increase the content of synthetic folic acid in soybeans, so that more people can prevent diseases and live a healthy life from folic acid in soy products (soy milk, tofu, soybean oil, etc.). [Official Page](https://teams.igem.org/5818)https://static.igem.org/peertube/streaming-playlists/hls/ad9a8e03-205a-49a6-ab42-86de4f54f366/8a8ca4a0-99f1-4e5c-85b3-c080415fc767-master.m3u8https://video.igem.org/videos/embed/nrnb4Bx8pFy76WQYsorxuJ1210162025-08-13T13:28:12.188ZYES2025 Project PromotionsNOhttps://video.igem.org/w/4mYc2ogYpozz9Q8JjtRStUhttps://video.igem.org/lazy-static/thumbnails/bc4d6162-756f-42f8-b178-374f5392c85f.jpgSUSTech-BIO: The Elf Catcher of “Super Fungus” (2025) - Project Promotion [English]**Title:** The Elf Catcher of “Super Fungus” **Description:** Drug-resistant pathogens pose a threat to global public health security. Among them, Candida auris, an invasive drug-resistant pathogenic fungus newly discovered in the past 15 years, can cause a variety of serious diseases. It is also known as a "super fungus" due to its characteristics of multi-drug resistance, deep tissue invasive infection, high fatality rate, and potential to cause outbreaks in hospitals, with thousands of people dying from this fungal infection. Its infection fatality rate is as high as 60%, and its pathogenicity and drug resistance make it a major threat in the field of public health. Currently, it is necessary to strengthen monitoring and research on it, and develop more effective diagnostic and treatment methods to cope with this challenge. T6SS, as the bacterial type VI secretion system, may be a usable "weapon". While the T6SS of Pseudomonas aeruginosa and Vibrio cholerae can only kill Gram-negative bacteria, it has been found in recent years that the T6SS of Acidovorax citrulli can kill Gram-positive bacteria and even fungi. Based on the above background, we consider using Escherichia coli BL21 as the engineering bacterium, modifying the T6SS from Acidovorax citrulli, and designing an engineering bacterium capable of regulating and killing Candida auris. In terms of product use, we have made the engineering bacterium into freeze-dried powder, which can be activated by a hydrogel patch containing arabinose when in use. Meanwhile, we have added arabinose and blue light-sensing elements to the engineering bacterium. The engineering bacterium can only survive normally in the hydrogel environment and under the dark conditions of the patch. Moreover, when the engineering bacterium achieves an appropriate killing effect, we can use blue light to activate the suicide switch of the engineering bacterium, thus ensuring biological safety. We aim to solve the problem of Candida auris ...https://static.igem.org/peertube/streaming-playlists/hls/1b38eb74-01d0-4ae4-8b1f-9673fbc9faf2/593b96a3-5856-4662-916d-58fe5e1bc2e4-master.m3u8https://video.igem.org/videos/embed/4mYc2ogYpozz9Q8JjtRStU12201492025-08-13T13:35:05.178ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wF2TXJUyyC5ZSXnAi6MG4ihttps://video.igem.org/lazy-static/thumbnails/1825f76e-0119-462d-a89d-a5c9014b9a6e.jpgStockholm: Musk Production Using Yeast (2025) - Project Promotion [English]**Title:** Musk Production Using Yeast **Description:** This is a 2-minute video that describes iGEM Stockholm 2025's project, named SyntheScent. Our goal is to produce musk compounds in a sustainable, environmentally-friendly, and efficient manner, utilizing synthetic biology as an alternative to the harmful chemical methods used today. [Wiki](https://2025.igem.wiki/stockholm) | [Official Page](https://teams.igem.org/5757)https://static.igem.org/peertube/streaming-playlists/hls/f86555d0-226e-4c97-b29a-d4c1173dd857/a8f28742-cc84-4dfe-9c67-52c70a4e2e9a-master.m3u8https://video.igem.org/videos/embed/wF2TXJUyyC5ZSXnAi6MG4i1100372025-08-13T13:38:08.571ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3WVZ6AJjaWGBYZVdubLqdLhttps://video.igem.org/lazy-static/thumbnails/210fa4ea-abbb-4635-a6bc-854d8622dc6b.jpgSZ-SHD: ALGAE (Accumulative Ligand-driven Gathering for Alleviation and Eco-reme... (2025) - Proj...**Title:** ALGAE (Accumulative Ligand-driven Gathering for Alleviation and Eco-remediation) **Description:** As industrialization accelerates, heavy metal pollution has become increasingly severe, posing a major challenge for global water environment management. Traditional methods for removing heavy metals, such as chemical precipitation and physical adsorption, are not only costly and energy-intensive but also prone to causing secondary pollution, making them inadequate for the demands of green and sustainable development. Consequently, developing efficient and low-cost bioremediation technologies has emerged as a key focus in the field of environmental protection. Cyanobacteria are considered ideal bioremediation agents due to their ability to grow autotrophically, rapid proliferation, and amenability to genetic modification. In this year’s competition, we aim to use genetic engineering to modify Synechocystis sp.PCC 6803, enabling it to express plant metallothioneins and phytochelatins in response to urea induction. This is expected to significantly enhance the strain’s tolerance to, and accumulation of, heavy metals such as cadmium, zinc, and copper, as well as facilitate the reduction of these metal ions into insoluble particles. Once the cyanobacterial cells are saturated with heavy metals, a metal-inducible promoter will be used to drive the expression of limonene, promoting cell aggregation for easier collection. Through this approach, we hope to achieve an environmentally friendly and efficient method for heavy metal removal. [Wiki](https://2025.igem.wiki/sz-shd) | [Official Page](https://teams.igem.org/5848)https://static.igem.org/peertube/streaming-playlists/hls/17ddb5c1-6cc9-4687-8a75-1ca072d5a9c4/074a7b58-34c2-4d2d-a910-7d57089eb980-master.m3u8https://video.igem.org/videos/embed/3WVZ6AJjaWGBYZVdubLqdL1130162025-08-13T13:44:21.920ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wcsn4aA3BSNMtPop5VyEsbhttps://video.igem.org/lazy-static/thumbnails/3fbe0091-d489-4574-bdc0-a98eeab59709.jpgLZU: A synbio-platform for mural protection (2025) - Project Promotion [English]**Title:** A synbio-platform for mural protection **Description:** This is the promotion video of our project in 2025. [Wiki](https://2025.igem.wiki/lzu) | [Official Page](https://teams.igem.org/5550)https://static.igem.org/peertube/streaming-playlists/hls/f48b968a-8fc5-439f-9bbf-48d1168df0d6/8808a307-5722-45a2-b101-441eb7dae65f-master.m3u8https://video.igem.org/videos/embed/wcsn4aA3BSNMtPop5VyEsb1170172025-08-13T13:53:10.117ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2tg2C2SFddkMNKapuKHZuJhttps://video.igem.org/lazy-static/thumbnails/b98f3b17-c97c-4269-85f1-9745712a7682.jpgBIT-LLM: PROTEUS (2025) - Project Promotion [English]**Title:** PROTEUS **Description:** Unlocking the potential of proteins with PROTEUS, an AI-driven platform revolutionizing synthetic biology. Powered by Protein Large Language Models and a streamlined DBTL cycle, PROTEUS designs, builds, tests, and learns to create optimized proteins with precision. From enhancing thermal stability to designing novel therapeutics, PROTEUS bridges innovation and application. Join us in shaping the future of biotechnology. [Wiki](https://2025.igem.wiki/bit-llm) | [Official Page](https://teams.igem.org/5984)https://static.igem.org/peertube/streaming-playlists/hls/0be77b54-482c-490e-b4fa-a8bb4094245e/30c42da4-a0bc-4586-886f-ee589b7e6bf6-master.m3u8https://video.igem.org/videos/embed/2tg2C2SFddkMNKapuKHZuJ1185202025-08-13T13:54:42.106ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1qYkABJHZ5v6RX9bCkmoP5https://video.igem.org/lazy-static/thumbnails/593116eb-b7d8-4224-9b9c-6d1a108034c3.jpgUNILA-LatAm: NANODEN - Nanobodies for Dengue (2025) - Project Promotion [English]**Title:** NANODEN - Nanobodies for Dengue **Description:** Dengue fever is a growing challenge in Latin America, with alarming numbers in 2024. In the border cities of Foz do Iguaçu (Brazil), Ciudad del Este (Paraguay), and Puerto Iguazú (Argentina), the tropical climate, rapid urbanization, and intense flow of people favor the proliferation of the Aedes aegypti mosquito. The NANODEN project brings an innovative approach: we reprogram the symbiotic bacterium Serratia marcescens, present in the mosquito's intestine, to produce nanobodies — small biomolecules, designed with the aid of artificial intelligence, capable of blocking the dengue virus before it multiplies. With this strategy, we seek to reduce disease transmission, decrease hospitalizations, and contribute to a healthier and more sustainable future. [Wiki](https://2025.igem.wiki/unila-latam) | [Official Page](https://teams.igem.org/5965)https://static.igem.org/peertube/streaming-playlists/hls/037c91e6-ed63-4d11-bf33-01bd6b22b912/8a2b584a-5217-4c4a-b82e-b3c8bf8eee57-master.m3u8https://video.igem.org/videos/embed/1qYkABJHZ5v6RX9bCkmoP51190362025-08-13T14:07:28.067ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2SAK2nyNyiSFyEP8B9FVgihttps://video.igem.org/lazy-static/thumbnails/2260baa8-336c-4c93-a432-62d4a57e56b5.jpgGU-Frankfurt: SPROUT - Smart Peptide Release On Unique Triggers (2025) - Project Promotion [English]**Title:** SPROUT - Smart Peptide Release On Unique Triggers **Description:** Fungal pathogens pose a serious threat to agriculture, causing major economic losses and increasing pressure on global food systems. Climate change further exacerbates these challenges by creating warmer, more humid conditions that promote fungal spread. Traditional chemical fungicides are starting to fall short; they harm beneficial organisms, disrupt ecosystems, and drive resistance in pathogens, putting long-term food security at risk. We want to offer a targeted, sustainable alternative. Using a modular sensor approach with a genomic AND-gate, our engineered bacteria detect pathogen-specific signals related to physiology and secretome, releasing antimicrobial peptides (AMPs) only when needed. We want to ensure precise action and minimize off-target effects. The platform’s modularity allows adaptation to various crops and fungal threats. SPROUT is a scalable, precision-based platform for next-generation plant protection. Its modular design allows adaptation to various crops and pathogens, enabling efficient, on-demand AMP release. This positions SPROUT as a practical and innovative tool for advancing sustainable disease management in agriculture. [Wiki](https://2025.igem.wiki/gu-frankfurt) | [Official Page](https://teams.igem.org/5628)https://static.igem.org/peertube/streaming-playlists/hls/0f29bccf-e178-4f27-b8c9-79c5041870a3/f347341d-d4c5-4c40-91a2-49d4f00f4985-master.m3u8https://video.igem.org/videos/embed/2SAK2nyNyiSFyEP8B9FVgi1120712025-08-13T13:56:36.287ZYES2025 Project PromotionsNOhttps://video.igem.org/w/iEb82op9MhwNvYLmwQvCtWhttps://video.igem.org/lazy-static/thumbnails/6292992a-6945-4200-a0f6-0e70ede6480a.jpgAthens: KERBEROS – Tackling microplastic pollution, one probiotic at a time (2025) - Project Prom...**Title:** KERBEROS – Tackling microplastic pollution, one probiotic at a time **Description:** Discover KERBEROS, the innovative probiotic from iGEM Athens 2025 designed to capture and remove microplastics directly from the human gut. Using engineered yeast cells with CBMs (carbohydrate-binding modules) that bind to microplastics, our student-led project offers a creative approach to combating a global health challenge. [Wiki](https://2025.igem.wiki/athens) | [Official Page](https://teams.igem.org/5930)https://static.igem.org/peertube/streaming-playlists/hls/8effdb9a-c54a-4b4c-bd8c-4e8d70620eac/577228d5-62cb-47e2-aa1b-3945b08cb9c6-master.m3u8https://video.igem.org/videos/embed/iEb82op9MhwNvYLmwQvCtW1200592025-08-13T14:10:34.516ZYES2025 Project PromotionsNOhttps://video.igem.org/w/44iUoLmhKVc8Y3GUGsHVXThttps://video.igem.org/lazy-static/thumbnails/1a4f3cf9-28b9-4afb-b025-0cc8cee0f8d7.jpgConcordia-Shanghai: PURPLE (2025) - Project Promotion [English]**Title:** PURPLE **Description:** PET Upcycling, Reducing Pollution, and Looping the Economy- it's a big name and an even bigger task. This is how our team's gone about it. [Wiki](https://2025.igem.wiki/concordia-shanghai) | [Official Page](https://teams.igem.org/5594)https://static.igem.org/peertube/streaming-playlists/hls/18c1ae3b-f2bc-40c0-b349-c878b9a78925/1a3935f9-5c07-463a-8c18-48e1dd862922-master.m3u8https://video.igem.org/videos/embed/44iUoLmhKVc8Y3GUGsHVXT1100372025-08-13T14:23:52.936ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sJGR8vczjVKT9FHEc9azLphttps://video.igem.org/lazy-static/thumbnails/6671841c-07f1-4622-ae1b-12229e337611.jpgFreiburg: Concave (2025) - Project Promotion [English]**Title:** Concave **Description:** We are proud to present: Concave! Create your own Repebody and use it to degrade any protein you want, and much more! Coming soon! [Wiki](https://2025.igem.wiki/freiburg) | [Official Page](https://teams.igem.org/5672)https://static.igem.org/peertube/streaming-playlists/hls/d8840432-6036-4121-8142-d13c885e447b/f6d93b11-d3ad-43b7-9d78-a46e814637af-master.m3u8https://video.igem.org/videos/embed/sJGR8vczjVKT9FHEc9azLp1230752025-08-13T14:24:19.204ZYES2025 Project PromotionsNOhttps://video.igem.org/w/kZcf2aH9qpkTtPNGgrVffRhttps://video.igem.org/lazy-static/thumbnails/2491661f-800a-4d5c-a767-379ef13de2b6.jpgCornell: PRoSPER (2025) - Project Promotion [English]**Title:** PRoSPER **Description:** An overview of Team Cornell's 2025 project PRoSPER: Planetary Removal of Soil Perchlorates and Enrichment Remediation. [Wiki](https://2025.igem.wiki/cornell) | [Official Page](https://teams.igem.org/5717)https://static.igem.org/peertube/streaming-playlists/hls/a1d9f517-7f66-4e90-ba72-6e4719532e8d/300b9a7b-4d70-4ae5-a048-ed88cc6983a1-master.m3u8https://video.igem.org/videos/embed/kZcf2aH9qpkTtPNGgrVffR1230812025-08-13T14:53:59.055ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bkonfu4PHnQ97LmLuNrBRHhttps://video.igem.org/lazy-static/thumbnails/5a846538-eb58-4c94-964e-31a64f3a93f5.jpgDuke: RESPIRA: Breaking the Biofilm Barrier (2025) - Project Promotion [English]**Title:** RESPIRA: Breaking the Biofilm Barrier **Description:** This is the project promotion video for Duke University iGEM, part of the Infectious Diseases Village for iGEM 2025. We present Project RESPIRA (Responsive Engineered Strains for Polymicrobial Infection Recovery in Airways). RESPIRA aims to tackle the persistent challenge of stubborn, pathogenic biofilms that cause Ventilator-Associated Pneumonia (VAP), using an innovative blend of synthetic biology tools to sense and disrupt these harmful communities. [Official Page](https://teams.igem.org/5719)https://static.igem.org/peertube/streaming-playlists/hls/53b04d4f-bc95-42d0-ab85-2a339ddc7877/8603fc50-1d4d-4cf8-886b-04736d85c580-master.m3u8https://video.igem.org/videos/embed/bkonfu4PHnQ97LmLuNrBRH1230642025-08-13T14:54:06.030ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mty8eqrANJYsyjMhrdC8fQhttps://video.igem.org/lazy-static/thumbnails/19d448a2-40d2-4898-ac15-79f0c9eb6dd7.jpgUManitoba: LacThera - Natural restoration. Engineered defence. (2025) - Project Promotion [English]**Title:** LacThera - Natural restoration. Engineered defence. **Description:** Discover LacThera, our lactobacillus-engineered probiotic designed to target harmful UTI-causing bacteria while protecting beneficial microbes. Using synthetic biology, we restore balance to the microbiome with precision and sustainability. [Wiki](https://2025.igem.wiki/umanitoba) | [Official Page](https://teams.igem.org/5720)https://static.igem.org/peertube/streaming-playlists/hls/a5cfa70c-0018-4855-8425-bc386d269cd8/478c6152-0a4e-4059-a334-25fa4627db49-master.m3u8https://video.igem.org/videos/embed/mty8eqrANJYsyjMhrdC8fQ1230202025-08-13T15:14:33.286ZYES2025 Project PromotionsNOhttps://video.igem.org/w/n8NmPWzX2uTdMkXrWCmMuVhttps://video.igem.org/lazy-static/thumbnails/9ef3ad06-c41a-4448-86c6-23870c289f47.jpgUGM-Indonesia: SALTY: Salt-Inducible TYDV Rep/RepA System for Cost-Effective DEN... (2025) - Proj...**Title:** SALTY: Salt-Inducible TYDV Rep/RepA System for Cost-Effective DENV-2 Domain III Vaccine in Nicotiana tabacum **Description:** Introducing SALTY, a pioneering project by iGEM UGM that harnesses tobacco plants to produce vaccines in a more efficient, sustainable, and cost-effective way. In this video, we explain how the salt-inducible promoter system, combined with the INPACT system based on TYDV (Tobacco Yellow Dwarf Virus), enables tobacco to become a biofactory for producing medical proteins like the dengue vaccine. TYDV is a virus-based expression system that offers controlled, high-yield protein production, ensuring the process is both efficient and scalable. By transforming Nicotiana tabacum into a platform for molecular farming, SALTY is paving the way for innovative solutions to global health challenges. Watch to learn how this cutting-edge technology can help provide better, more accessible vaccines for the world. [Wiki](https://2025.igem.wiki/ugm-indonesia) | [Official Page](https://teams.igem.org/5811)https://static.igem.org/peertube/streaming-playlists/hls/ab26b023-dc66-47a0-a1f6-ad648de791c1/818d6450-888c-4f76-9780-86d6ac96b3bd-master.m3u8https://video.igem.org/videos/embed/n8NmPWzX2uTdMkXrWCmMuV1220232025-08-13T15:27:05.446ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tz1b7vqmRbUvRa1K7GtDDRhttps://video.igem.org/lazy-static/thumbnails/faf562b2-b5c1-4ffb-b25c-4085cbaadbfd.jpgIITChicago: IIT_Chicago_Project_Promotion_Video (2025) - Project Promotion [English]**Title:** IIT_Chicago_Project_Promotion_Video **Description:** In January 2025, over 60% of U.S. honeybee colonies collapsed, threatening critical crops such as California's almonds. Our team is engineering Snodgrassella alvi, a core gut microbe in honey bees, using the Bee Microbiome Toolkit (BTK system) to break down harmful organophosphate pesticides. This innovative biological shield helps bees detoxify their food, strengthens pollinator resilience, and protects ecosystems for the future. [Wiki](https://2025.igem.wiki/iitchicago) | [Official Page](https://teams.igem.org/5862)https://static.igem.org/peertube/streaming-playlists/hls/df42654a-feaa-40b4-a46c-d5c0998e00ff/37f62f18-a18f-4440-9636-8db3ad26ff84-master.m3u8https://video.igem.org/videos/embed/tz1b7vqmRbUvRa1K7GtDDR1210212025-08-13T15:27:27.569ZYES2025 Project PromotionsNOhttps://video.igem.org/w/89YkvefNCDT6kyHNvDXnKxhttps://video.igem.org/lazy-static/thumbnails/a094d171-fcaf-4954-8590-e1e021bf542a.jpgHG-Tokyo: NONERGY: Combating Hay Fever with Two Approaches (2025) - Project Promotion [English]**Title:** NONERGY: Combating Hay Fever with Two Approaches **Description:** Hay fever is a growing global health issue, not limited to Japan. While many treatments exist, challenges remain regarding side effects and limited efficacy, prompting the need for innovative solutions. Our project proposes two novel approaches: (1) recreating the synthetic pathway of the flavonoid narirutin in yeast, and (2) developing a fusion peptide with targeted anti-allergic properties. Together, these strategies aim to provide effective and safer alternatives for allergy management. [Wiki](https://2025.igem.wiki/hg-tokyo) | [Official Page](https://teams.igem.org/5919)https://static.igem.org/peertube/streaming-playlists/hls/39f0a3a5-6b85-42c9-b5ca-3fc34972cad9/79dc8ee4-e4b1-410a-9f69-72b7034cc130-master.m3u8https://video.igem.org/videos/embed/89YkvefNCDT6kyHNvDXnKx1180492025-08-13T15:32:56.981ZYES2025 Project PromotionsNOhttps://video.igem.org/w/xgzkqSxuwvWzfZ8Xsraasjhttps://video.igem.org/lazy-static/thumbnails/8a6a4218-ae6b-4ae4-99d4-d74c717b213e.jpgHPI-Potsdam: BioComplete - AI-Powered DNA Design Assistant (2025) - Project Promotion [English]**Title:** BioComplete - AI-Powered DNA Design Assistant **Description:** BioComplete is an AI-powered design assistant for synthetic biology that makes creating genetic sequences faster and more efficient. Inspired by how AI transforms text and image generation, it works like an intelligent DNA editor, offering smart autocomplete, optimized alternatives, and innovative combinations of genetic parts. Using genomic foundation models, BioComplete supports engineering synthetic organisms and circuit design—assisting in generating new part libraries, selecting parts from the iGEM registry, and combining them into composite parts and devices. [Wiki](https://2025.igem.wiki/hpi-potsdam) | [Official Page](https://teams.igem.org/6011)https://static.igem.org/peertube/streaming-playlists/hls/fd37ff98-80f6-4ff7-9266-40627dadaab2/007e66b5-e0ee-441d-84c9-b2de6766bd6b-master.m3u8https://video.igem.org/videos/embed/xgzkqSxuwvWzfZ8Xsraasj1100292025-08-13T15:30:48.038ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tPpaE7WHygGmTHGX5EuWcFhttps://video.igem.org/lazy-static/thumbnails/03e829fc-1730-40e0-91ae-defcd00d52ba.jpgUTokyo: PENgUIN-Prime Editor and Novel prime-editing guide RNAs for Understandin... (2025) - Proj...**Title:** PENgUIN-Prime Editor and Novel prime-editing guide RNAs for Understanding Intracellular Narratives- **Description:** PENgUINS revolutionizes how we track cellular activity. Here's how it works: As RNA expression changes within a cell, our specialized 'switch prime editing guide RNA' converts this RNA information directly into a DNA sequence. Then, a Prime Editor precisely inserts this sequence, in chronological order, onto a 'DNA tape' within the cell's own genome. Later, we simply sequence this tape, effectively 'playing back' the cellular events. This allows us to understand exactly what RNA expression occurred, cell by cell, in a precise time-series. [Wiki](https://2025.igem.wiki/utokyo) | [Official Page](https://teams.igem.org/5807)https://static.igem.org/peertube/streaming-playlists/hls/e144fa56-05d6-4b51-96d9-84b70b47de3d/a466f40e-22ba-4157-877d-434b52016625-master.m3u8https://video.igem.org/videos/embed/tPpaE7WHygGmTHGX5EuWcF12101072025-08-13T15:38:01.008ZYES2025 Project PromotionsNOhttps://video.igem.org/w/98MdtCwc4DV64vknLuWB4Khttps://video.igem.org/lazy-static/thumbnails/d6b6b50f-dc71-41b1-9405-1794d8b1e06b.jpgNCHU: Ecocasein (2025) - Project Promotion [English]**Title:** Ecocasein **Description:** This video introduces our iGEM project — Ecocasein, a synthetic biology-based solution to produce A2 β-casein using yeast. By creating a cow-free, low-carbon milk alternative, we aim to reduce greenhouse gas emissions from the livestock industry and contribute to sustainable agriculture and climate action. [Official Page](https://teams.igem.org/5901)https://static.igem.org/peertube/streaming-playlists/hls/41df2e33-6043-4b87-8b7b-2e740c3f9835/04de7f32-f5c3-4f08-a29e-092493c3b4cc-master.m3u8https://video.igem.org/videos/embed/98MdtCwc4DV64vknLuWB4K1210142025-08-13T15:38:55.904ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vumCxH8WzJ7Bm3ZrkERUe2https://video.igem.org/lazy-static/thumbnails/03dc4af6-b93d-4634-99ac-96eba3e7c7c1.jpgKCISLK-Taiwan: Bioengineering Cellulase for Sustainable Manufacturing (2025) - Project Promotion ...**Title:** Bioengineering Cellulase for Sustainable Manufacturing **Description:** Food waste’s huge impact on our planet Earth destroyed habitats, emits huge amounts of greenhouse gas emissions, and threatens deeply to our society. Currently, one of the most sustainable methods is using black soldier fly larvae to degrade food waste; however, black soldier fly larvae lack the ability to properly digest fibers, leading us to believe that enhancements to the current system could upgrade efficiency and reduce the costs associated with food waste degradation. LarVase aims to mass-produce Endo-1,4-β-glucanase, a cellulase originated from Bacillus subtilis through cloning into an E. coli BL21 expression vector. Through our specially designed plasmids, we expect to see YebF, a carrier protein having a similar function as a signal peptide to transport Endo-1,4-β-glucanase directly to the extracellular space, lowering current costs of enzyme production while maintaining environmental sustainability. [Wiki](https://2025.igem.wiki/kcislk-taiwan) | [Official Page](https://teams.igem.org/5626)https://static.igem.org/peertube/streaming-playlists/hls/eece8f7a-5224-4272-954d-fded4e4053eb/471f6dcb-bae1-4410-ad1f-cf6d35b76945-master.m3u8https://video.igem.org/videos/embed/vumCxH8WzJ7Bm3ZrkERUe21190802025-08-13T15:40:01.021ZYES2025 Project PromotionsNOhttps://video.igem.org/w/5apufoy2J1tq3CZjVwEnFQhttps://video.igem.org/lazy-static/thumbnails/df1cc60a-defb-4e1c-9fe6-065d4b58efd4.jpgTianjin: tianjinPV (2025) - Project Promotion [English]**Title:** tianjinPV **Description:** Cold weather often hinders our pursuit of beauty and fashion – whether it's car door handles frozen shut or skincare products freezing solid outdoors. Tianjin team 'KUNPENG-The Guardian of Beauty in Cold Conditions' drew inspiration from the freeze-resistance wisdom of polar organisms. Combining synthetic biology and machine learning, they designed an 'Antifreeze Protein-Trehalose Synergistic Defense System.' The team screened 11 highly active antifreeze proteins (AFPs) and integrated their coding genes with a trehalose synthesis module. This created 'antifreeze chassis cells' within a yeast surface display system. Machine learning was used to optimize the antifreeze performance of the proteins and design novel antifreeze proteins. The ultimate vision is to integrate this system into cosmetic applications like creams within the fashion and beauty industry in the future. [Wiki](https://2025.igem.wiki/tianjin) | [Official Page](https://teams.igem.org/5894)https://static.igem.org/peertube/streaming-playlists/hls/21b4b914-91f4-42c8-9b7c-dc6a4a15f7ea/1ab1b8f2-a3d5-40f8-830b-1139c1a44e1c-master.m3u8https://video.igem.org/videos/embed/5apufoy2J1tq3CZjVwEnFQ1230292025-08-13T15:51:29.177ZYES2025 Project PromotionsNOhttps://video.igem.org/w/tNUMn8GafaWx9GPrzKwmrWhttps://video.igem.org/lazy-static/thumbnails/9d3ebfe6-ed44-4b7b-8461-9b20ec4f2e55.jpgKyoto: Avisptosis (2025) - Project Promotion [English]**Title:** Avisptosis **Description:** Description:The Kyoto team’s project aims to develop a novel antiviral defense mechanism that actively induces cell death in influenza virus–infected cells, thereby preventing viral amplification within the host animal. This approach is designed to suppress pandemics caused by highly pathogenic avian influenza. [Wiki](https://2025.igem.wiki/kyoto) | [Official Page](https://teams.igem.org/5910)https://static.igem.org/peertube/streaming-playlists/hls/e1337c42-a1d4-409c-af2d-820787523670/33973b1c-1976-48aa-a7c1-ff5dcdbbd081-master.m3u8https://video.igem.org/videos/embed/tNUMn8GafaWx9GPrzKwmrW1160262025-08-13T15:44:11.671ZYES2025 Project PromotionsNOhttps://video.igem.org/w/oUC8TUnwqVQgW1DUxNj8zThttps://video.igem.org/lazy-static/thumbnails/512b103a-81e1-4d9e-abed-c75c5d9339dd.jpgGuelph: seQUESTer: A SynBio Solution to Lead Contamination in Water (2025) - Project Promotion [E...**Title:** seQUESTer: A SynBio Solution to Lead Contamination in Water **Description:** We’re proud to present seQUESTer, a bioreactor containing engineered yeast that can detect, remember and remove lead from waterways in a porous filter media. [Wiki](https://2025.igem.wiki/guelph) | [Official Page](https://teams.igem.org/5611)https://static.igem.org/peertube/streaming-playlists/hls/b981ff09-3290-4c3f-8c48-61b36e0c2339/d3555b2c-cf30-41cc-9162-dc0e46a0f06b-master.m3u8https://video.igem.org/videos/embed/oUC8TUnwqVQgW1DUxNj8zT1220252025-08-13T15:57:34.374ZYES2025 Project PromotionsNOhttps://video.igem.org/w/itGQa3GgDM3QzJCh9bhHe1https://video.igem.org/lazy-static/thumbnails/9bf8e610-f378-49c6-b6ea-2ed82dc03646.jpgAnatolia College-GR: MAVericks (2025) - Project Promotion [English]**Title:** MAVericks **Description:** This video showcases our passion and our vision to help cope the everyday problem of anxiety in a sustainable way, while also introducing our team, MAVericks, to the scientific field! [Wiki](https://2025.igem.wiki/anatolia-college-gr) | [Official Page](https://teams.igem.org/5868)https://static.igem.org/peertube/streaming-playlists/hls/8d8999ff-e804-4340-847e-cd84f96771d6/4da4a78c-c76c-4ef1-b962-92a684d80138-master.m3u8https://video.igem.org/videos/embed/itGQa3GgDM3QzJCh9bhHe11230612025-08-13T15:58:16.060ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gdsCPMjpM7xiamgmrHuwmphttps://video.igem.org/lazy-static/thumbnails/253be282-f05c-414a-9a22-a9c22b02052a.jpgEstonia-TUBI: Y.E.S.T. - Yeast Electron Storage & Transfer (2025) - Project Promotion [English]**Title:** Y.E.S.T. - Yeast Electron Storage & Transfer **Description:** In this project, we aim to engineer yeast Microbial Fuel Cells (MFC). Our strategy involves generation of Saccharomyces cerevisiae with increased NADH pool and enhancement of cell’s extracellular electron transfer capacity to increase current output in MFC systems. Using the CRISPR-Cas9 genome engineering tool we will delete genes encoding for the key enzymes involved in the consumption of cytosolic NADH through fermentation and respiration-associated pathways. To fully exploit the capacity of an increased NADH pool, we will heterologously express cellobiose dehydrogenase (CDH), a redox-active enzyme capable of directly transferring electrons to external acceptors, including electrodes of electric circuits. Music by universfield, Hitslab, Ebunny via Pixabay [Official Page](https://teams.igem.org/5944)https://static.igem.org/peertube/streaming-playlists/hls/7b366b62-c90b-4155-8fbb-6530d3b5b3e7/a0edc6ab-f6c5-459e-999c-9f0319d3b91b-master.m3u8https://video.igem.org/videos/embed/gdsCPMjpM7xiamgmrHuwmp1190472025-08-13T15:50:44.141ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uBLSucYGHJLXieFZCRMf9fhttps://video.igem.org/lazy-static/thumbnails/aff7017a-604e-40f2-8c0d-976c1fe1cc4a.jpgNU Boston: FloraGuard (2025) - Project Promotion [English]**Title:** FloraGuard **Description:** With the advent of worsening climate change, wildfires present as a one of the most devastating environmental and ecological crises of the 21st century, causing extensive damage to homes and habitats as well as threatening the lives of people and wildlife across the globe. To address this issue, the NU Boston iGEM team has developed FloraGuard, a novel synthetic biology solution to prevent wildfires before they ever get the chance to spread. At its core, FloraGuard is a recombinant protein complex in which a biological flame retardant protein is conjugated to a cellulose binding domain derived from the cellulosomes of anaerobic bacteria. These protein complexes were designed by our team and then expressed in bacteria before being purified. The purified protein complexes were then be applied to cotton and various other forms of naturally occurring cellulose to test the flammability of treated vs. untreated samples. Our goal is to increase the flame resistance of cellulose and hopefully all plant matter to mitigate the spread and devastation that wildfires leave in their wake. [Wiki](https://2025.igem.wiki/nu-boston) | [Official Page](https://teams.igem.org/5823)https://static.igem.org/peertube/streaming-playlists/hls/e7be911b-ba48-486b-bc1d-03520d657e2e/b9c60c74-cd47-48cb-bfd9-e33f28844306-master.m3u8https://video.igem.org/videos/embed/uBLSucYGHJLXieFZCRMf9f1210372025-08-13T16:02:51.138ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sgM8S3XFhn68aFfwjvGGs3https://video.igem.org/lazy-static/thumbnails/77895517-6fd3-4d04-a4d9-8df0cfdcd8d1.jpgNU-Kazakhstan: LUCID – LUng Cancer Integrated Diagnostics (2025) - Project Promotion [English]**Title:** LUCID – LUng Cancer Integrated Diagnostics **Description:** LUCID is a dual-modality platform for early detection of Non-Small Cell Lung Cancer. It integrates a multiplexed fiber-optic biosensor, functionalized with aptamers or antibodies to detect AGR2 and CEA biomarkers in blood serum, with an AI-powered CT scan analysis system, enabling rapid, accurate, and accessible diagnostics. [Wiki](https://2025.igem.wiki/nu-kazakhstan) | [Official Page](https://teams.igem.org/5896)https://static.igem.org/peertube/streaming-playlists/hls/d4c193d6-81b3-4620-92b8-5eb17f41fd56/2fe030f7-6c55-47dc-96b8-7d4a0c33faf8-master.m3u8https://video.igem.org/videos/embed/sgM8S3XFhn68aFfwjvGGs31230752025-08-13T16:24:38.659ZYES2025 Project PromotionsNOhttps://video.igem.org/w/dhkoHRy6CtevxYGqFZ6KEVhttps://video.igem.org/lazy-static/thumbnails/3b80431c-a58d-47fc-8f24-2ddb7fb2d11f.jpgUGA: ExoSPY : Exosomes Solution for Pancreatic cancer (2025) - Project Promotion [English]**Title:** ExoSPY : Exosomes Solution for Pancreatic cancer **Description:** Follow us on social media ! Instagram : igem_uga_2025 LinkedIn : iGEM UGA 2025 We are ExoSPY, an innovative theranostic solution for pancreatic cancer. With modified exosomes, we target tumor cells to diagnose precancerous lesions via MRI (using Gadolinium) and we treat them using gold nanoparticles. A dual approach, more precise and more effective. [Wiki](https://2025.igem.wiki/uga) | [Official Page](https://teams.igem.org/5825)https://static.igem.org/peertube/streaming-playlists/hls/637583cc-03c4-41a0-8da7-28e4d97b1895/4be9430b-f78b-48f1-8574-88c140435b54-master.m3u8https://video.igem.org/videos/embed/dhkoHRy6CtevxYGqFZ6KEV1200832025-08-13T16:06:21.634ZYES2025 Project PromotionsNOhttps://video.igem.org/w/hP2NPfT8F5U7fs1tihovgNhttps://video.igem.org/lazy-static/thumbnails/8d3c3277-e5cf-45f4-9fe0-e713432712a7.jpgEcuador: AvianGuard – Dual-Immunization Probiotic Platform: Activating Immunity,... (2025) - Proj...**Title:** AvianGuard – Dual-Immunization Probiotic Platform: Activating Immunity, Reinforcing Defense **Description:** We present an innovative probiotic-based platform designed to provide simultaneous protection against avian influenza through two complementary strategies: active and passive immunization. Using a safe probiotic as the delivery vehicle, we combine the production of antigens that stimulate the host’s immune response with the direct delivery of stabilized nanobodies, optimized for enhanced stability and neutralizing capacity. This technology is designed to improve biosecurity, provide a sustainable approach to controlling infectious diseases, and adapt to multiple pathogens across diverse animal production systems. [Official Page](https://teams.igem.org/5783)https://static.igem.org/peertube/streaming-playlists/hls/88234a19-2730-40ed-a317-be3d134a4778/c63603d1-05fa-4ffe-8f08-8f55ffc1822f-master.m3u8https://video.igem.org/videos/embed/hP2NPfT8F5U7fs1tihovgN1210252025-08-13T16:29:39.696ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eQAWJ484cfSiAgd22MxTwDhttps://video.igem.org/lazy-static/thumbnails/e065459e-b756-473d-8522-6d32840f9f2b.jpgIISc-Bengaluru: ARGUS-2440: Tackling Nitrate Leaching at the Root (2025) - Project Promotion [Mar...**Title:** ARGUS-2440: Tackling Nitrate Leaching at the Root **Description:** Excess nitrate ions in soil leach away due to irrigation, rainfall and weathering. They enter water bodies and prove detrimental to organisms relying on these freshwater sources. We propose to engineer a bacterium that can convert excess nitrate in the rhizosphere to ammonium, a molecule that is retained better in soil and taken up more efficiently by plants. These bacteria will be applied as a biofilm around plant roots, conferring additional resistance to drought, infection, and adverse environmental conditions. This model not only reduces the downstream effects of nitrate leaching, but also benefits crops by maintaining soil nitrogen content and retaining nutrients in an energetically favourable state for plant consumption. Our project thus provides a comprehensive agriculturally-motivated bioremediation solution against nitrate pollution. [Official Page](https://teams.igem.org/6006)https://static.igem.org/peertube/streaming-playlists/hls/701009cb-5477-4fb2-9a36-69fbb9420ca5/f14e2dee-6c3d-447c-acfc-55bccf9a571e-master.m3u8https://video.igem.org/videos/embed/eQAWJ484cfSiAgd22MxTwD1230142025-08-13T16:15:30.470ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ebWZ1FiMC4oq2tdz9PzK4chttps://video.igem.org/lazy-static/thumbnails/050653d3-47a9-4ad4-b541-3b14d38385aa.jpgDUESSELDORF: STREAM (2025) - Project Promotion [English]**Title:** STREAM **Description:** What if a bacteria could produce like a factory? And what if we are able to provide the perfect conditions for it to bioproduce? iGEM Düsseldorf 2025 takes the hotel analogy when Ms. Bacterium books a room at the Hotel Bioproduction. With this year's project STREAM, we tackle some of the challenges faced in today's bioproduction. DISCLAIMER: no GMOs were used in the video and all characters are fictional. [Wiki](https://2025.igem.wiki/duesseldorf) | [Official Page](https://teams.igem.org/5676)https://static.igem.org/peertube/streaming-playlists/hls/6ace1fee-7f86-40a7-aff3-3d749fe7891d/0e5a6bcb-63d7-4a76-a910-7cb8a1b6d71e-master.m3u8https://video.igem.org/videos/embed/ebWZ1FiMC4oq2tdz9PzK4c1210332025-08-13T16:31:25.861ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2CTYybniU858eyBmyavDHthttps://video.igem.org/lazy-static/thumbnails/10b94cdf-e637-4161-aced-4227a0f0b164.jpgIISc-Bengaluru: ARGUS-2440: Tackling Nitrate Leaching at the Root (2025) - Project Promotion [Tel...**Title:** ARGUS-2440: Tackling Nitrate Leaching at the Root **Description:** Excess nitrate ions in soil leach away due to irrigation, rainfall and weathering. They enter water bodies and prove detrimental to organisms relying on these freshwater sources. We propose to engineer a bacterium that can convert excess nitrate in the rhizosphere to ammonium, a molecule that is retained better in soil and taken up more efficiently by plants. These bacteria will be applied as a biofilm around plant roots, conferring additional resistance to drought, infection, and adverse environmental conditions. This model not only reduces the downstream effects of nitrate leaching, but also benefits crops by maintaining soil nitrogen content and retaining nutrients in an energetically favourable state for plant consumption. Our project thus provides a comprehensive agriculturally-motivated bioremediation solution against nitrate pollution. [Official Page](https://teams.igem.org/6006)https://static.igem.org/peertube/streaming-playlists/hls/0d3ff1f6-31a5-42db-b17c-8b37bed67a31/5b906aad-c856-42a9-93c1-cec9e7ed2852-master.m3u8https://video.igem.org/videos/embed/2CTYybniU858eyBmyavDHt123062025-08-13T16:37:47.162ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2t5Udb2bTetHcDntMvFeQKhttps://video.igem.org/lazy-static/thumbnails/851e48f4-a0f0-4f88-a012-3fd91eab664b.jpgSquirrel-SouthEast: Strawberry Spoilage Full-Process Prevention and Real-Time Mo... (2025) - Proj...**Title:** Strawberry Spoilage Full-Process Prevention and Real-Time Monitoring System **Description:** This project addresses the high spoilage rate of strawberries during post-harvest transportation, where current preservation methods are costly or have limited effectiveness, by proposing an integrated “prevention + real-time monitoring” solution. After harvest, strawberries are sprayed with chitinase and endo-β-1,3-glucanase to degrade fungal cell walls and inhibit infection. During transportation, a VOCs-based whole-cell biosensor constructed from Escherichia coli BL21 (BE3) detects spoilage-related volatile compounds and triggers a fluorescent warning, enabling logistics operators to adjust conditions or remove damaged fruit in time to prevent further spread. This approach leaves no chemical residues, has low production costs, can be integrated with IoT systems, and is suitable for large-scale application—significantly reducing spoilage rates and transport losses, improving freshness, and enhancing both economic returns and food safety. [Wiki](https://2025.igem.wiki/squirrel-southeast) | [Official Page](https://teams.igem.org/5879)https://static.igem.org/peertube/streaming-playlists/hls/0be13d83-765b-4c48-a8e9-aeedfe1b8e27/57ecf790-3e5c-45f6-8134-605bf51b9505-master.m3u8https://video.igem.org/videos/embed/2t5Udb2bTetHcDntMvFeQK1000282025-08-13T16:47:58.973ZYES2025 Project PromotionsNOhttps://video.igem.org/w/swE7zkrPPwB3TQxjyq1dP6https://video.igem.org/lazy-static/thumbnails/bb334208-c468-4dd6-a2bc-f51a2c5ca61c.jpgTsinghua-A: Strengthening mRNA, Protecting Every Life (2025) - Project Promotion [English]**Title:** Strengthening mRNA, Protecting Every Life **Description:** mRNA vaccines have demonstrated great potential since the ‌COVID-19 pandemic‌ outbreak. However, the innate instability makes mRNA vaccines hard to be stored and transported, thus preventing low-income regions from adopting it due to the insufficiency of cold chains. Though efforts have been made, minimum free energy structures still have single strands vulnerable to RNase. We wondered whether single strands could be shielded by double strands under the consideration of tertiary structure. By utilizing artificial intelligence, we built a system to assess single-stranded exposure and selecting the most stable designs from hundreds of low free-energy sequences, wishing more people in the farthest and poorest regions could benefit from the faster application, safer immunization, and better protection of mRNA vaccines. [Official Page](https://teams.igem.org/5589)https://static.igem.org/peertube/streaming-playlists/hls/d6d5680d-2b38-461f-a9bf-b53fb974a9db/20cb93e2-ea28-4d72-a9d9-e3f01989387d-master.m3u8https://video.igem.org/videos/embed/swE7zkrPPwB3TQxjyq1dP61180132025-08-13T16:49:11.396ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ekamuNNUnjVwxHqPqiSQSVhttps://video.igem.org/lazy-static/thumbnails/34ba9d36-8406-4610-b23d-cab68774584f.jpgAEI Prep-Taiwan: Dancing Alage (2025) - Project Promotion [English]**Title:** Dancing Alage **Description:** I’m seeing Arctic ice melting I’m having days with storm raging All warnings show climate change is coming And it is caused by greenhouse gas Nowadays too much carbon stays But Net zero can bring rebirth So carbon harvest saves the Earth We know gene tech will light the way Songs make the algae dance and sway Catch carbon become fuel one day We are DANCING J, OAOA Algae lights the way, OAOA Music starts the gene to play, and makes the Carbon fade and drift away. We are DANCING J, OAOA We love to learn and play, OAOA iGEM makes us strong to lead the way To shine like a star - we change the world and sing our way! [Wiki](https://2025.igem.wiki/aei-prep-taiwan) | [Official Page](https://teams.igem.org/5744)https://static.igem.org/peertube/streaming-playlists/hls/6bf3b2cd-1536-46e1-b9a5-2b53459b33e9/9677c0a3-22da-4af3-870a-9e293397e4d2-master.m3u8https://video.igem.org/videos/embed/ekamuNNUnjVwxHqPqiSQSV830532025-08-13T16:51:30.983ZYES2025 Project PromotionsNOhttps://video.igem.org/w/1NNx4ZhmAKgeLXzKaTiat1https://video.igem.org/lazy-static/thumbnails/d2312a00-7af7-4d93-bb84-bb63b1438724.jpgCalUCSF: NeuroSplice: Redefining Neurological Diagnostics (2025) - Project Promotion [English]**Title:** NeuroSplice: Redefining Neurological Diagnostics **Description:** Imagine a world where neurological diseases like Multiple Sclerosis can be detected early, without hospital visits, expensive scans, or complex lab equipment. At CalUCSF iGEM, we’re making that world possible. NeuroSplice is a low-cost, portable RNA diagnostic that uses a synthetic biology tool called a toehold switch to detect harmful splice variants of the IL7R gene, biomarkers linked to multiple neurological disorders. Paired with a freeze-dried, cell-free system, our test produces a clear color change or fluorescence in minutes, all without electricity. Our team is committed to not only engineering this device for accuracy and speed, but also to bringing accessible diagnostics to underserved communities worldwide. Learn more and follow our journey! #iGEM #SyntheticBiology #Diagnostics #NeuroSplice #CalUCSF [Wiki](https://2025.igem.wiki/calucsf) | [Official Page](https://teams.igem.org/6031)https://static.igem.org/peertube/streaming-playlists/hls/0688e45d-0677-405b-af91-d4ea48b0081a/443bced2-e02f-407c-8190-5e581be6ee13-master.m3u8https://video.igem.org/videos/embed/1NNx4ZhmAKgeLXzKaTiat11230162025-08-13T16:57:30.888ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mLGuXhg2inT3W8Atskr9GGhttps://video.igem.org/lazy-static/thumbnails/51576abb-078d-4a4a-b04a-f6498669feb0.jpgHopkins: PolyGone: A Synthetically Engineered Fish Feed Additive that Fights Mic... (2025) - Proj...**Title:** PolyGone: A Synthetically Engineered Fish Feed Additive that Fights Microplastic **Description:** Polygone seeks to improve human health by eliminating the microplastics that have accumulated in our seafood. With synthetic biology, Polygone engineered probiotics can enzymatically degrade plastic in fish guts, helping to create a cleaner diet and a cleaner world. [Wiki](https://2025.igem.wiki/hopkins) | [Official Page](https://teams.igem.org/5914)https://static.igem.org/peertube/streaming-playlists/hls/a8347524-d685-4a84-bbde-c282d9d1eb70/cafc2755-28bc-41f0-951b-b9cc3a3349fe-master.m3u8https://video.igem.org/videos/embed/mLGuXhg2inT3W8Atskr9GG1100662025-08-13T16:56:15.531ZYES2025 Project PromotionsNOhttps://video.igem.org/w/fQi7UmCThWi8LVRqcwka2Nhttps://video.igem.org/lazy-static/thumbnails/c1dc5fbb-86b1-41ef-9fc2-7fb52b3822b2.jpgFSU: Plastipeutics (2025) - Project Promotion [English]**Title:** Plastipeutics **Description:** The 2025 FSU iGEM team aims to tackle the growing potential problem of microplastics in the small intestine through means of synthetic biology. Using engineered E. coli, the team aims to create a therapeutic device that binds and aggregates microplastic particles before they are absorbed further into the bloodstream. [Wiki](https://2025.igem.wiki/fsu) | [Official Page](https://teams.igem.org/5886)https://static.igem.org/peertube/streaming-playlists/hls/781e3131-c5e8-4e83-baab-64b6e38466e4/20cfc4fe-00ce-43ff-92b4-bac916a94f87-master.m3u8https://video.igem.org/videos/embed/fQi7UmCThWi8LVRqcwka2N1225272025-08-13T17:08:55.126ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bPK6wnUr3LV7q6VwLTUkS7https://video.igem.org/lazy-static/thumbnails/2087b5aa-b5a1-43d4-8319-1b2b87dc292d.jpgMUST-Macau: anti-breast cancer bispecific antibody​ (2025) - Project Promotion [English]**Title:** anti-breast cancer bispecific antibody​ **Description:** While not the most prevalent cancer globally, breast cancer poses a significant threat, primarily due to its high mortality and incidence rates. It stands as the fifth leading cause of cancer death worldwide and the number one cause of cancer-related deaths among women. In Macau, both new cases and deaths from breast cancer have surged by 145.5% and 56%, respectively, over the past decade, with an alarming trend of younger patients being affected. This escalating threat is a growing concern. In response, our team is passionate about pioneering a breakthrough new therapy. We are specifically focused on developing solutions for triple-negative breast cancer (TNBC) that has become resistant to multiple treatments, particularly gemcitabine. [Official Page](https://teams.igem.org/6012)https://static.igem.org/peertube/streaming-playlists/hls/57a5e6f4-d5e0-4efa-99c6-c1fcd1ee43d6/8165e0cf-4492-41ff-af99-2fbd1a5f0890-master.m3u8https://video.igem.org/videos/embed/bPK6wnUr3LV7q6VwLTUkS71220242025-08-13T17:00:01.130ZYES2025 Project PromotionsNOhttps://video.igem.org/w/eDS5yb5GwtkV9YkYZ7XC6Qhttps://video.igem.org/lazy-static/thumbnails/046af940-8e42-4634-95e7-f77290f74416.jpgCambridge: CamiRa - Crop Assessment via miRNA Analysis (2025) - Project Promotion [English]**Title:** CamiRa - Crop Assessment via miRNA Analysis **Description:** We are the Cambridge iGEM team, CamiRa, and we are aiming to develop a paper based diagnostic device for plant stressors via the detection of related miRNAs. We hope that our diagnostic device will be not only accurate and rapid, but also cheap, user-friendly, and accessible. We aim to get tests like these into the hands of farmers around the world, which is crucial to supporting the global growing demand for food. [Wiki](https://2025.igem.wiki/cambridge) | [Official Page](https://teams.igem.org/5799)https://static.igem.org/peertube/streaming-playlists/hls/6e902f1e-9390-4db0-a10d-1352a597017a/94c0ff2a-a4f8-47b1-827b-19f8402b6085-master.m3u8https://video.igem.org/videos/embed/eDS5yb5GwtkV9YkYZ7XC6Q1230922025-08-13T17:01:35.525ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sHPdeN7EdD3LJWEbpJiS2Whttps://video.igem.org/lazy-static/thumbnails/57755730-94f3-40f9-aa94-30a0a2efc78a.jpgWarsaw: HepaSwitch: Next step in a liver cancer treatment (2025) - Project Promotion [English]**Title:** HepaSwitch: Next step in a liver cancer treatment **Description:** Specific, safe, and effective — that's a recipe for a perfect cancer treatment. Using the tools of synthetic biology, our toehold switch, we aim to change the treatment of hepatocellular cancer forever. [Wiki](https://2025.igem.wiki/warsaw) | [Official Page](https://teams.igem.org/5865)https://static.igem.org/peertube/streaming-playlists/hls/d86431cd-6970-452a-9b0a-e358e4dbfba0/107dbae8-b6c5-4032-87ea-d46040f3b70f-master.m3u8https://video.igem.org/videos/embed/sHPdeN7EdD3LJWEbpJiS2W1210452025-08-13T17:05:05.095ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sLUwWhBusWnkMFJ4cvnA9Yhttps://video.igem.org/lazy-static/thumbnails/d45d2872-2764-4a67-bf0b-170dde442e7d.jpgSJTU-BioX-Shanghai: QURES: Quorum-sensing Utilizing Reprogrammed Engineered Symb... (2025) - Proj...**Title:** QURES: Quorum-sensing Utilizing Reprogrammed Engineered Symbionts for Atopic Dermatitis **Description:** As the incidence of atopic dermatitis is increasing, the poor therapeutic experience of patients relying on long-term steroid use and immunosuppressants requires a breakthrough. Current treatments, however, face a high recurrence rate. We stand to develop a more favorable treatment experience. Relevant studies have shown that the microbiome plays a critical role in the pathogenesis of atopic dermatitis, particularly the presence of Staphylococcus aureus and its inflammatory effects. Based on this, we designed a therapeutic system using engineered Staphylococcus epidermidis. We genetically modified S. epidermidis to sense the autoinducing peptide (AIP) secreted by S. aureus and activate two downstream therapeutic pathways. The first pathway produces an antibody protein that targets and neutralizes the inflammatory cytokine, while the second secretes AIP-C to suppress the virulence of S. aureus. Together, our system offers a safe and long-lasting therapeutic strategy, representing a paradigm shift in atopic dermatitis management—moving from symptom suppression to microbiome-mediated disease prevention. [Wiki](https://2025.igem.wiki/sjtu-biox-shanghai) | [Official Page](https://teams.igem.org/5615)https://static.igem.org/peertube/streaming-playlists/hls/d8d2b4b4-dc6c-4c1c-be0d-3ed3547b2788/1ab027fb-046a-4f6b-a37a-78f126fe5b2a-master.m3u8https://video.igem.org/videos/embed/sLUwWhBusWnkMFJ4cvnA9Y1210342025-08-13T17:10:24.238ZYES2025 Project PromotionsNOhttps://video.igem.org/w/3qyXFPHBydGy7xA5s6Unvjhttps://video.igem.org/lazy-static/thumbnails/b0a0e8b2-b7bf-40aa-811e-6db914093594.jpgIITKharagpur: TRACER (2025) - Project Promotion [English]**Title:** TRACER **Description:** TRACER — Targeted Relapse Assessment via Cellular Effector Response A measured reflection that moves from the human experience of remission into a clear, professional summary of a new surveillance approach. The video opens on the quiet that follows remission — machines fall silent, treatment plans conclude, and families breathe easier — then pivots to a sober reality: relapse can be sudden, aggressive, and often detected too late. From that grounded, human context we transition to the problem statement: current follow-up methods are periodic, costly, and leave critical windows for intervention. From there the film outlines TRACER at a conceptual level. Developed by Team IIT Kharagpur, TRACER is a cell-based surveillance strategy designed for continuous, non-invasive detection of molecular signs of recurrence while providing a localized protective response in the tumor microenvironment. [Wiki](https://2025.igem.wiki/iitkharagpur) | [Official Page](https://teams.igem.org/6033)https://static.igem.org/peertube/streaming-playlists/hls/13a070b0-68d8-4ad4-bc17-463a27041748/692a26a0-72f6-42b5-9fc7-eab78939e9e7-master.m3u8https://video.igem.org/videos/embed/3qyXFPHBydGy7xA5s6Unvj1155652025-08-13T17:10:46.326ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rJH98xRFTR4tiLcwrkwki5https://video.igem.org/lazy-static/thumbnails/e4610db5-ff1e-405f-bdd5-ff8d2a040d93.jpgIISc-Bengaluru: ARGUS-2440: Tackling Nitrate Leaching at the Root (2025) - Project Promotion [Mal...**Title:** ARGUS-2440: Tackling Nitrate Leaching at the Root **Description:** Excess nitrate ions in soil leach away due to irrigation, rainfall and weathering. They enter water bodies and prove detrimental to organisms relying on these freshwater sources. We propose to engineer a bacterium that can convert excess nitrate in the rhizosphere to ammonium, a molecule that is retained better in soil and taken up more efficiently by plants. These bacteria will be applied as a biofilm around plant roots, conferring additional resistance to drought, infection, and adverse environmental conditions. This model not only reduces the downstream effects of nitrate leaching, but also benefits crops by maintaining soil nitrogen content and retaining nutrients in an energetically favourable state for plant consumption. Our project thus provides a comprehensive agriculturally-motivated bioremediation solution against nitrate pollution. [Official Page](https://teams.igem.org/6006)https://static.igem.org/peertube/streaming-playlists/hls/d06b0ef1-90be-4e20-9d1c-ff3b1f82ec0a/005a7ad6-4c39-478d-8a17-10c0a71ed749-master.m3u8https://video.igem.org/videos/embed/rJH98xRFTR4tiLcwrkwki5123052025-08-13T17:13:15.333ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6qfDWEUM1YyPspKDeTiX5Ghttps://video.igem.org/lazy-static/thumbnails/8c7ba306-2534-4712-b148-8a8af7dca049.jpgIIT-Bombay: AureoLyze | MARATHI (2025) - Project Promotion [Marathi]**Title:** AureoLyze | MARATHI **Description:** This is the Marathi version. [Wiki](https://2025.igem.wiki/iit-bombay) | [Official Page](https://teams.igem.org/5633)https://static.igem.org/peertube/streaming-playlists/hls/2be09322-3920-44b1-9385-1ee9705b8584/3a8a39f6-a81e-45b9-8ff7-3a4f861f2f6f-master.m3u8https://video.igem.org/videos/embed/6qfDWEUM1YyPspKDeTiX5G1190142025-08-13T17:18:16.356ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sJSeoc6caeU5WeSEQd4WtShttps://video.igem.org/lazy-static/thumbnails/cdde0b21-90ed-4a8e-93f6-06b98347f9f6.jpgJilin-AI: BIOMNIGEM (2025) - Project Promotion [English]**Title:** BIOMNIGEM **Description:** The unified intelligence engine for synthetic biology [Wiki](https://2025.igem.wiki/jilin-ai) | [Official Page](https://teams.igem.org/6032)https://static.igem.org/peertube/streaming-playlists/hls/d889cc9e-4172-4230-8dc7-0c308ba228a0/2c647669-6b6c-42bc-b7af-653c9ecc17a2-master.m3u8https://video.igem.org/videos/embed/sJSeoc6caeU5WeSEQd4WtS1220272025-08-13T17:18:08.048ZYES2025 Project PromotionsNOhttps://video.igem.org/w/nUheWPtpXs5NV1YTDc7azwhttps://video.igem.org/lazy-static/thumbnails/f9b6ca26-edcd-4925-b065-4babdbc6ca96.jpgRUM-UPRM: R-DetoX 2.0 (2025) - Project Promotion [English]**Title:** R-DetoX 2.0 **Description:** In the Anones Lagoon, located in Vieques, Puerto Rico, a percentage of RDX has been identified. This contaminant may have negative impacts within the community and the environment. The Synthetic Biology Research Team, iGEM RUM-UPRM, proposes a new-optimized bioremediation solution that detects and degrades RDX into less toxic compounds, to be implemented potentially in Puerto Rico and around the world. [Wiki](https://2025.igem.wiki/rum-uprm) | [Official Page](https://teams.igem.org/5905)https://static.igem.org/peertube/streaming-playlists/hls/b15c98af-2605-488d-aa8f-43428d3c0f5c/ac74d0ff-cba8-4bc8-b185-4d6aeed7a783-master.m3u8https://video.igem.org/videos/embed/nUheWPtpXs5NV1YTDc7azw12001742025-08-13T17:15:58.930ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cTJgrAoUcpTXEbgj64Qez2https://video.igem.org/lazy-static/thumbnails/4fac5f8c-9662-4cf3-aae1-d88241b1be35.jpgTUDarmstadt: Perchlorate degradation on Mars - A synthetic-biological approach t... (2025) - Proj...**Title:** Perchlorate degradation on Mars - A synthetic-biological approach to water treatment **Description:** Mars has long fascinated mankind, and with the growing interest in its exploration, the use of local resources, especially water, is becoming increasingly important. However, the huge natural water sources are contaminated by toxic perchlorate salt and therefore are unusable. Since transporting water from Earth is too expensive and existing recycling systems do not allow complete recovery of water, the development of a method to remove perchlorate is crucial for future Mars missions​​. The aim of our project is to genetically engineer Bacillus subtilis to degrade perchlorate and to build a mini-bioreactor to provide optimal perchlorate degradation conditions. In addition, we are planning to characterize the enzymes perchlorate reductase and chlorite dismutase in vitro in order to further optimise our system based on the collected data and to make it available to other iGEM teams. [Wiki](https://2025.igem.wiki/tudarmstadt) | [Official Page](https://teams.igem.org/5634)https://static.igem.org/peertube/streaming-playlists/hls/604d8148-e859-4c84-8560-3702751c451f/1d700071-68a9-4de8-8811-01ba3925ad17-master.m3u8https://video.igem.org/videos/embed/cTJgrAoUcpTXEbgj64Qez21010562025-08-13T17:23:15.536ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2R5qibMdwYV653YDHPJSHXhttps://video.igem.org/lazy-static/thumbnails/8831e772-9c26-4d93-ae7a-7d171a6e908c.jpgSummit City Bio: Algae vs. Mercury: A Natural Solution for Cleaner Water (2025) - Project Promoti...**Title:** Algae vs. Mercury: A Natural Solution for Cleaner Water **Description:** Mercury pollution from power plants can enter our lakes and rivers, transform into the toxic methylmercury, and work its way into the food chain which can pose serious health risks. Traditional water treatment methods can be costly and create extra waste. Summit City Bio introduces an innovative, nature-powered solution: Chlorella vulgaris, a type of algae with a natural ability to bind mercury and other heavy metals. By enhancing its chelating properties, we can create a renewable, eco-friendly water treatment method that helps prevent mercury poisoning, protect public health, and promote a cleaner, more sustainable future. [Wiki](https://2025.igem.wiki/summit-city-bio) | [Official Page](https://teams.igem.org/5963)https://static.igem.org/peertube/streaming-playlists/hls/0ef34e7f-a1ca-41fc-8e77-749ec33c3ae9/9f14c1b3-3072-4711-9846-68645eaec12c-master.m3u8https://video.igem.org/videos/embed/2R5qibMdwYV653YDHPJSHX770142025-08-13T17:18:39.078ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gdG4TG8xsC4ifXRjgTHfAphttps://video.igem.org/lazy-static/thumbnails/bc2aa63a-4c97-44ff-a677-b49c3f932c3c.jpgCSU-CHINA: LACMA: Lactate-responsive Module and Application (2025) - Project Promotion [English]**Title:** LACMA: Lactate-responsive Module and Application **Description:** Our project addresses the lactate-rich tumor microenvironment by engineering a lactate-responsive module that enables immune cells(e.g., CAR-T cells in Car-T therapy) to secrete lactate oxidase (sLOx) and reduce excess lactate. To build this module, a lactate sensing protein is split to two fragments, which are fused to the N-terminal and C-terminal fragments of TEV-protease, respectively. High lactate induces TEV-protease reconstitution, which then cleaves a GV-2ER fusion protein to release the transcription factor GV (Gal4-VP64). GV enters the nucleus and activates sLOx expression, lowering lactate concentration and enhancing immune cell anti-tumor efficacy. [Wiki](https://2025.igem.wiki/csu-china) | [Official Page](https://teams.igem.org/5731)https://static.igem.org/peertube/streaming-playlists/hls/7b3eb286-49fd-4312-9a90-11855d0120bb/222a611d-b6c1-43ee-9072-df46c0dd163d-master.m3u8https://video.igem.org/videos/embed/gdG4TG8xsC4ifXRjgTHfAp1205572025-08-13T17:36:09.692ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9DgtF2p7VVkaNhv8Hm1JEChttps://video.igem.org/lazy-static/thumbnails/4f62be12-f5a4-455e-8b2f-df8457a8c6f8.jpgJPIS: Revolutionizing Agriculture with Synthetic Biology (2025) - Project Promotion [English]**Title:** Revolutionizing Agriculture with Synthetic Biology **Description:** Team JPIS is one of the few brave high school iGEM teams from India. We are driven by curiosity, innovation, and national pride. Our team combines diverse skills in biology, engineering, and outreach, working to address real-world challenges through synthetic biology while also fostering collaboration, creativity, and scientific and social impact at both local and global levels. [Official Page](https://teams.igem.org/5931)https://static.igem.org/peertube/streaming-playlists/hls/45fd2ab8-d1b3-4704-a9b4-1e3807a8d0c8/ca180fea-4e5d-44b3-a0c8-3dab4c7b11b5-master.m3u8https://video.igem.org/videos/embed/9DgtF2p7VVkaNhv8Hm1JEC1235262025-08-13T17:30:03.557ZYES2025 Project PromotionsNOhttps://video.igem.org/w/egAkbTDz2JEmmU23UQrRkwhttps://video.igem.org/lazy-static/thumbnails/c621b356-ded6-4b55-94ad-b41142b212d6.jpgSCU-BSE-China: RareAmine Forge (2025) - Project Promotion [English]**Title:** RareAmine Forge **Description:** Engineering ThermoFactories for Specialized Polyamines Pioneering Sustainable Bio-Manufacturing. Follow our journey! [Official Page](https://teams.igem.org/5808)https://static.igem.org/peertube/streaming-playlists/hls/6b741dc2-aa50-4a0a-97bb-62ff747840b8/7e92de5c-e033-4937-a2c8-1d76bf9521df-master.m3u8https://video.igem.org/videos/embed/egAkbTDz2JEmmU23UQrRkw1235222025-08-13T17:41:17.560ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9VhGPhcdDqiVZ391R4HSCnhttps://video.igem.org/lazy-static/thumbnails/aa91c378-8bf2-4ba4-bf19-565b7932d598.jpgYale: Customize. Click. Cure. (2025) - Project Promotion [English]**Title:** Customize. Click. Cure. **Description:** L-asparaginase treats acute lymphoblastic leukemia by depleting asparagine, essential for leukemia cells. However, it’s quickly cleared, requiring frequent dosing and risking immune reactions. Our proposal: a therapeutic integrated with nonstandard amino acids as molecular hooks for fatty acids, extending half-life and improving circulation. Our systematic multisite approach allows precise tuning while preserving activity through computational and lab testing—creating a customizable, patient-personalized enzyme that could transform site-selection for scientists and treatment for patients. [Wiki](https://2025.igem.wiki/yale) | [Official Page](https://teams.igem.org/5977)https://static.igem.org/peertube/streaming-playlists/hls/4839d2b7-c6f5-45e5-82f7-e9f8b58a707d/8420a330-60a4-453c-859c-abac06d0cb13-master.m3u8https://video.igem.org/videos/embed/9VhGPhcdDqiVZ391R4HSCn1230482025-08-13T17:36:58.501ZYES2025 Project PromotionsNOhttps://video.igem.org/w/qxZuq77wy3h3jPF3RAejHfhttps://video.igem.org/lazy-static/thumbnails/4f96c7f7-5d73-42e9-9dda-e83dc10d8125.jpgIIT-Bombay: AureoLyze | MARATHI FINAL (2025) - Project Promotion [Albanian]**Title:** AureoLyze | MARATHI FINAL **Description:** This is the final marathi version [Wiki](https://2025.igem.wiki/iit-bombay) | [Official Page](https://teams.igem.org/5633)https://static.igem.org/peertube/streaming-playlists/hls/c6d2d06b-1d16-46bd-b1e8-6a0de0cebaa8/6da8d6a1-5071-45cf-8a49-b67113cb5a61-master.m3u8https://video.igem.org/videos/embed/qxZuq77wy3h3jPF3RAejHf119082025-08-13T17:41:38.932ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gCWVs1aNXy6APM9QdphH8Ehttps://video.igem.org/lazy-static/thumbnails/ab0a739d-8654-4fae-bdbd-29c94a5b47db.jpgSYPHU-CHINA: Engineered E. coli Targets Liver Cancer (2025) - Project Promotion [English]**Title:** Engineered E. coli Targets Liver Cancer **Description:** Liver cancer causes 758,000 annual global deaths, with 367,700 new cases in China (2024). Traditional chemotherapy is hindered by 0.5%-15% tumor-initiating cell resistance and >70% immune cell inhibition from acidic tumor environments. Using synthetic biology, researchers engineered E. coli with a modified combinatorial promoter—preserving O1/O2 core sequences while removing ArcA binding sites and native -35/-10 regions. This enables lactate responsiveness (via LldR) while avoiding hypoxia/glucose inhibition, letting E. coli colonize tumors precisely. Inserted Blh and RALDH2 genes allow E. coli to produce all-trans retinoic acid from β-carotene, killing liver cancer cells without harming healthy tissue. Future optimization aims to establish microbial therapy as the fourth cancer treatment modality. [Wiki](https://2025.igem.wiki/syphu-china) | [Official Page](https://teams.igem.org/5895)https://static.igem.org/peertube/streaming-playlists/hls/7ea1b3c4-17c1-4fe8-ad00-3f4d3ba5f1f0/c8275c4e-9280-4886-87b9-752369cb24b4-master.m3u8https://video.igem.org/videos/embed/gCWVs1aNXy6APM9QdphH8E1210202025-08-13T18:06:47.620ZYES2025 Project PromotionsNOhttps://video.igem.org/w/8YQxhMjKjBaXmHE9ixVG3dhttps://video.igem.org/lazy-static/thumbnails/16d685c3-9f21-4c8f-bb0d-548adfe60939.jpg[Podcast] SciComm Made Easy - S2E5: Bridging Science & StartupsHow does a biotech startup go from lab bench to global stage—and who makes sure the science gets heard along the way? In this Mind the Gap episode of SciComm Made Easy, we spotlight Danford Mkunda, co-founder of Coastal Biotech, whose mission is to unlock the potential of algae for a more sustainable future. Join host Charity as they explore the unique role of science communication in startup life—from educating stakeholders to earning public trust. In a world where biotech innovation moves fast, communicating clearly and credibly can make all the difference. Tune in to hear how Danford navigates the challenges of translating science into strategy—while keeping the story both rigorous and relatable. Whether you're building a startup or just curious about the algae-powered future, this is one episode you won’t want to miss.https://static.igem.org/peertube/streaming-playlists/hls/409f8906-4584-4f22-9cb5-daa13f0b02f8/d9007bdf-3729-46fb-8df9-07ee7c5545ef-master.m3u8https://video.igem.org/videos/embed/8YQxhMjKjBaXmHE9ixVG3d22520192025-08-20T09:05:36.844ZYESiGEM CommunityNOhttps://video.igem.org/w/dAFDRMbGMdFctZb8BB91Bchttps://video.igem.org/lazy-static/thumbnails/53d4425a-d045-4329-9e21-02bcdc25e976.jpgUtrecht: Loading Screen (2025) [English]Loading screen for the wikihttps://static.igem.org/peertube/streaming-playlists/hls/66056393-05a3-4457-af4b-c9e9941b4709/4c24f2a5-cbf7-4351-ad42-9858d1658eaf-master.m3u8https://video.igem.org/videos/embed/dAFDRMbGMdFctZb8BB91Bc30032025-08-25T07:04:21.102ZYES2025 TeamsNOhttps://video.igem.org/w/aPKMfEB1NentrQrBoeqBTmhttps://video.igem.org/lazy-static/thumbnails/0649b3af-2b1d-498d-86ce-8602b6205a36.jpgUtrecht: Waves (2025) [English]Wave animation for the wiki home pagehttps://static.igem.org/peertube/streaming-playlists/hls/4f8d2f86-c40a-4e4c-a650-ad0e6e5f501e/95ebcf47-23ba-4546-850c-f86cb4a58682-master.m3u8https://video.igem.org/videos/embed/aPKMfEB1NentrQrBoeqBTm50192025-08-25T07:05:42.576ZYES2025 TeamsNOhttps://video.igem.org/w/weTBSS49WNHE2g787TYZaThttps://video.igem.org/lazy-static/thumbnails/9c482b65-40e8-45e4-b0d2-fdd4708be086.jpgJiangnan-China: logo (2025)Jiangnan-China: logo (2025)https://static.igem.org/peertube/streaming-playlists/hls/f4e2a3cf-573d-41e6-a00b-e3b1031637b1/69b489ec-2eed-41c0-b0af-b95d57e10061-master.m3u8https://video.igem.org/videos/embed/weTBSS49WNHE2g787TYZaT70302025-08-25T07:03:39.925ZYES2025 TeamsNOhttps://video.igem.org/w/ikP4m37D919ydSQAPCS8gVhttps://video.igem.org/lazy-static/thumbnails/8197f319-10fc-43fc-9686-7b7d02e8e622.jpgTest-2: test tsets (2025) - Project Promotion [Bulgarian]**Title:** test tsets **Description:** fasdfasdfsfasdfasdfd [Official Page](https://teams.igem.org/5388)https://static.igem.org/peertube/streaming-playlists/hls/8c6f7d3a-9e23-4ffc-bf0d-90eeeb49a087/d559a33e-9206-4345-a187-c27643b5dd89-master.m3u8https://video.igem.org/videos/embed/ikP4m37D919ydSQAPCS8gV67022025-08-26T11:27:55.558ZYESMain orestisath channelNOhttps://video.igem.org/w/bTnvpwUhAHiH9UMFjCk6e9https://video.igem.org/lazy-static/thumbnails/014a96f6-0aed-43c5-b6c1-33e61491ba27.jpgVIT-Vellore: The Bugatti Trend (2025) [English]A remake of the bugatti trend but for biotech! https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/582792b1-e1f7-484a-bc23-57f7339efd66/1fc20ce1-5a32-44f4-9235-4b629d28059f-master.m3u8https://video.igem.org/videos/embed/bTnvpwUhAHiH9UMFjCk6e910002025-08-29T09:40:16.263ZYES2025 TeamsNOhttps://video.igem.org/w/nREAnjzi9VXNqNiRtZrSTJhttps://video.igem.org/lazy-static/thumbnails/cf2f2a0b-487d-4f8f-8b6d-ba41575cc57e.jpgVIT-Vellore: So he thought (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/b0ff23dc-f7d6-4c76-bbee-173052085dd8/22d0f2fd-78e6-4676-be16-b32cbf03bb21-master.m3u8https://video.igem.org/videos/embed/nREAnjzi9VXNqNiRtZrSTJ11002025-08-29T09:45:20.138ZYES2025 TeamsNOhttps://video.igem.org/w/78MknmTQEGG2QvasTGeGqfhttps://video.igem.org/lazy-static/thumbnails/489c76b2-dcb5-40cb-89ec-142312c8aaa7.jpgVIT-Vellore: Senorita (2025) [Hindi]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/31acf9f4-13a4-4d42-859f-0ff471542286/86a8fcc7-dcda-4522-bf76-e3d18ab6cccc-master.m3u8https://video.igem.org/videos/embed/78MknmTQEGG2QvasTGeGqf19002025-08-29T09:46:58.581ZYES2025 TeamsNOhttps://video.igem.org/w/jhZNabaYkqRNrh8eEbS2zDhttps://video.igem.org/lazy-static/thumbnails/588af0cf-a06f-4753-b6d7-7b7c9a2ce6bc.jpgVIT-Vellore: Contamination (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/9424039f-154a-4b95-9d6d-3cda8fb33db3/943f462b-9bec-4a13-98c5-e3be318d6e97-master.m3u8https://video.igem.org/videos/embed/jhZNabaYkqRNrh8eEbS2zD13012025-08-29T09:47:44.105ZYES2025 TeamsNOhttps://video.igem.org/w/gHSpjovmWGmTNojoTWrL8Mhttps://video.igem.org/lazy-static/thumbnails/15e16017-4d66-4060-bc00-04ce3da475fa.jpgIOANNINA: Shots of plane trees (2025)A video for iGEM IOANNINA 2025. Showing some plane trees from Ioannina city. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/7f51a2c4-e676-485a-85e0-85eb8522769b/198e7271-ed36-434d-a609-fe98f57b2268-master.m3u8https://video.igem.org/videos/embed/gHSpjovmWGmTNojoTWrL8M601212025-08-29T10:50:28.960Zigemioannina2025planetreesnatureigemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/gKpSYsKc7s2kXUdsueyCgrhttps://video.igem.org/lazy-static/thumbnails/0564d9ea-3bca-40b2-aca3-47dd7aa2a41f.jpgTsinghua: logo animation (2025)logo animation for wiki. Team Tsinghua 2025 wiki: https://2025.igem.wiki/tsinghuahttps://static.igem.org/peertube/streaming-playlists/hls/7f88c722-de19-43a7-ad86-e39e566e875f/dd1a7c18-164e-46b4-9b6e-605b3a73e0e3-master.m3u8https://video.igem.org/videos/embed/gKpSYsKc7s2kXUdsueyCgr60632025-08-29T12:12:43.600ZYES2025 TeamsNOhttps://video.igem.org/w/bzZRMoDsJ72FB3x8uQroSqhttps://video.igem.org/lazy-static/thumbnails/09f906f8-fa2e-4e54-b79c-49cfc7dfc818.jpg[Podcast] SciComm Made Easy - S2E6: Scaling Up with Smart SciCommWhat does it really take to scale up science in the real world? In this Scaling Science episode, we chat with Nick Oswald, founder of Bitesize Bio, a platform helping life science researchers connect, learn, and grow through practical, bite-sized wisdom. Host Paul Naftali dives into how educational content builds bridges—from students to mentors, researchers to solutions, and ideas to commercial reality. Whether you're a scientist, entrepreneur, or educator, this episode is packed with insights on how great content and community can transform your science into something truly scalable.https://static.igem.org/peertube/streaming-playlists/hls/55ba9664-3a21-4dc2-bb43-63b26b0e502c/ba3de4aa-0e04-4715-990f-eea9d756c4f8-master.m3u8https://video.igem.org/videos/embed/bzZRMoDsJ72FB3x8uQroSq2956022025-09-01T15:24:43.040ZYESiGEM CommunityNOhttps://video.igem.org/w/etCURsYPHQg9mFbEyhWFT7https://video.igem.org/lazy-static/thumbnails/78a6f0cd-7695-4882-aaf6-3a249b9b5e87.jpgBrno Czech Republic: Duckweed Timelaps (2025)Timelaps of growing duckweed in our lab.https://static.igem.org/peertube/streaming-playlists/hls/6d22a1b9-af92-42f0-bed8-510d28f09300/136443fd-23b3-417c-b8fe-58caf463b168-master.m3u8https://video.igem.org/videos/embed/etCURsYPHQg9mFbEyhWFT76052025-09-01T09:23:58.500ZYES2025 TeamsNOhttps://video.igem.org/w/utun21AEtv4SRTcBVScTjChttps://video.igem.org/lazy-static/thumbnails/6836e867-7387-4cfa-921f-5bdb1290f101.jpgBrno Czech Republic: Soybean timelaps (2025)Video showing the time-lapse of growing soybeans.https://static.igem.org/peertube/streaming-playlists/hls/e6967175-9bb1-4ae6-b193-67e396ebf49c/4c2e0d2f-efd6-4204-85df-c206da13cb6f-master.m3u8https://video.igem.org/videos/embed/utun21AEtv4SRTcBVScTjC18042025-09-01T15:25:42.398ZYES2025 TeamsNOhttps://video.igem.org/w/mCaXyEyfKo6JmPQh3H98GMhttps://video.igem.org/lazy-static/thumbnails/84519a82-66e6-4de1-8390-fcae215d4124.jpgCHINA-XJTU: AI-assisted Design and High-throughput Screening of DTE and its Appl... (2025) - Proj...**Title:** AI-assisted Design and High-throughput Screening of DTE and its Applications in the Production of D-Allulose **Description:** AI-Assisted Design, Screening and Application of D-Allulose-3-Epimerase: As a rare sugar, D-allulose features low caloric value and various physiological functions, with its sweetness reaching 70% of that of sucrose, making it a revolutionary natural healthy sweetener. D-allulose-3-epimerase (DTE), a key enzyme in D-allulose synthesis, has been classified as an enzyme preparation for food industry by the National Health Commission. Nevertheless, the low activity and poor stability of DTE have consistently been one of the critical obstacles limiting the industrialization of D-allulose. Based on the latest open-source algorithms, this project performs de novo design and prediction of the enzyme structure, and utilizes a fluorescent RNA-mediated high-throughput screening platform to screen novel DTE enzymes with enhanced catalytic activity and thermal stability. Ultimately, these enzymes will be applied to the high-efficiency production of D-allulose and its wide-ranging social applications. This project is expected to supply a breakthrough core enzyme for D-allulose synthesis, establish a vital basis for advancing the industrialization of allulose and its social applications in the food and pharmaceutical sectors, and therefore holds substantial scientific significance and application prospects. [Official Page](https://teams.igem.org/5890)https://static.igem.org/peertube/streaming-playlists/hls/a703af8d-17fe-4a67-8283-dc64eaed3c49/d6406f5e-e8bb-4b84-8eb3-ef22115660af-master.m3u8https://video.igem.org/videos/embed/mCaXyEyfKo6JmPQh3H98GM1230182025-09-01T13:50:47.400ZYES2025 Project PromotionsNOhttps://video.igem.org/w/8eChHNVo6aGqtzaWafRtUZhttps://video.igem.org/lazy-static/thumbnails/ab24325d-31fb-4206-ad69-4c91f976d71f.jpgSZSAIS-BaoAn: Biovitalis: Designing Synbio for a World That Doesn’t Break Us (2025) - Project Pro...**Title:** Biovitalis: Designing Synbio for a World That Doesn’t Break Us **Description:** What if it were possible for science to rewrite the burnout rules? In today's world, chronic fatigue, heart disease, and emotional exhaustion are no longer the exception— they're the norm. But Biovitalis sees another world. Our project combines synthetic biology and stress physiology to address the hidden overwork epidemic at its molecular roots. By engineering microbial systems to create salidroside in a sustainable manner—a potent natural molecule that has already been shown to have anti-fatigue, neuroprotective, and cardioprotective properties—we're not just making a biosynthetic platform. We're making a biological solution to a cultural disease. With intelligent metabolic rewiring and intelligent biosensors, Biovitalis is leading the way to a world in which health is not sacrificed for productivity—and in which a resilient, post-burnout society is no longer a pipe dream, but a design choice that creates an utopian world without such conditions. [Official Page](https://teams.igem.org/5954)https://static.igem.org/peertube/streaming-playlists/hls/3a9700ca-143c-4c07-bff1-fb5adca6a8f5/e8c30192-af6c-4de5-a0ea-b50d93721598-master.m3u8https://video.igem.org/videos/embed/8eChHNVo6aGqtzaWafRtUZ1110192025-09-01T15:37:55.593ZYES2025 Project PromotionsNOhttps://video.igem.org/w/i1xpfwXMZsBYShPJXPZSDGhttps://video.igem.org/lazy-static/thumbnails/1c9e0c4e-1e69-4e83-a7c7-d387ebf2f1ef.jpgVIT-Vellore: Fun (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/89beb56d-064f-4d4c-97f3-42715feb67ca/5cc64efb-cb1a-42ec-accd-fafc84fc5f58-master.m3u8https://video.igem.org/videos/embed/i1xpfwXMZsBYShPJXPZSDG13042025-09-01T18:47:27.482ZYES2025 TeamsNOhttps://video.igem.org/w/i9mGrqAVeeQy9U48preqyohttps://video.igem.org/lazy-static/thumbnails/82150807-7ea7-41cf-9619-151bdc125353.jpgVIT-Vellore: Missing (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/8ad60fff-5fea-4016-85be-d2cb03c36dee/c43a465d-60c5-4d1a-90c3-c45d20957a49-master.m3u8https://video.igem.org/videos/embed/i9mGrqAVeeQy9U48preqyo16002025-09-01T18:47:43.707ZYES2025 TeamsNOhttps://video.igem.org/w/aw2yEuswj4MqSBVT2dJSRRhttps://video.igem.org/lazy-static/thumbnails/55e54ed6-a23b-4301-802e-1fc085aca22b.jpgVIT-Vellore: Annoyed (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/4d13863d-7436-45cb-a7dd-ad219c601383/5b719f77-020c-4d31-9a8c-29b3514b1367-master.m3u8https://video.igem.org/videos/embed/aw2yEuswj4MqSBVT2dJSRR6002025-09-01T18:47:51.694ZYES2025 TeamsNOhttps://video.igem.org/w/eMNPJTkMPHZKNzQdM4qjNShttps://video.igem.org/lazy-static/thumbnails/0c7c5aa4-c666-4d29-ac48-b2dc5b71a0a6.jpgStony-Brook: Cas-T Away: Stony Brook Team (2025) - Project Promotion [English]**Title:** Cas-T Away: Stony Brook Team **Description:** Set on a island beach, members of the 2025 Stony Brook iGEM team have put together a skit in order to visually "show" our project. Our two protagonists, Cas13a and gRNA, come to work together in order to defeat our antagonist, HIV, who has infiltrated the cell. Throughout the skit, they not only find and bind with one another, but by the end, HIV is successfully neutralized. We hope you enjoy our skit! [Wiki](https://2025.igem.wiki/stony-brook) | [Official Page](https://teams.igem.org/5540)https://static.igem.org/peertube/streaming-playlists/hls/6fac20c3-b4c8-4e0a-8f5a-80de62377336/6e0ca4b8-7048-40ce-a737-6305cbc0aeab-master.m3u8https://video.igem.org/videos/embed/eMNPJTkMPHZKNzQdM4qjNS12301202025-09-01T20:21:41.545ZYES2025 Project PromotionsNOhttps://video.igem.org/w/sPkJEqQUihm5mj77Df1569https://video.igem.org/lazy-static/thumbnails/e086a91e-346f-4f2e-b478-060e092892c4.jpgSCUT-China: Closed-loop in-situ α-Lactalbumin production system in space station... (2025) - Proj...**Title:** Closed-loop in-situ α-Lactalbumin production system in space stations using C. necator H16 **Description:** Traditional space food faces challenges such as short shelf life, nutrient degradation, and high resupply costs. To address the nutritional supply challenges of long-term space missions, this project leverages synthetic biology to develop an "In-Situ Protein Production System for Space". We focus on the efficient synthesis of α-lactalbumin, whose calcium-binding properties can prevent bone loss in microgravity, and whose essential amino acid profile meets 90% of astronauts' daily nutritional requirements. We engineered the hydrogen-oxidizing bacterium Cupriavidus necator H16 to express the α-lactalbumin gene. Utilizing its chemolithoautotrophic metabolism, the system converts CO₂ exhaled by astronauts, nitrogen from urine waste, and H₂/O₂ produced through water electrolysis onboard into high-quality protein. A compact, low-energy-consumption bioreactor was developed to enable automated and continuous production. This system will significantly reduce reliance on Earth-based supplies, providing sustainable life support for long-duration space missions. [Wiki](https://2025.igem.wiki/scut-china) | [Official Page](https://teams.igem.org/5781)https://static.igem.org/peertube/streaming-playlists/hls/d929b98d-e745-4eda-afa9-1564ce117b3a/ec273694-f45b-4df1-9414-9b80c5ea766e-master.m3u8https://video.igem.org/videos/embed/sPkJEqQUihm5mj77Df15691230122025-09-02T07:51:15.964ZYES2025 Project PromotionsNOhttps://video.igem.org/w/58fPQvSE8D2deqb5vzifefhttps://video.igem.org/lazy-static/thumbnails/e990bcd5-4d35-41cb-b723-118354ab3026.jpgTechnion-Israel: Syntropica- Technion (2025) - Project Promotion [English]**Title:** Syntropica- Technion **Description:** Syntropica Promotion Video- Technion iGEM [Wiki](https://2025.igem.wiki/technion-israel) | [Official Page](https://teams.igem.org/5830)https://static.igem.org/peertube/streaming-playlists/hls/2167e5a9-7615-4e1d-83e0-304647564dd0/b179b361-cce7-4dc5-a9cb-741006b2813c-master.m3u8https://video.igem.org/videos/embed/58fPQvSE8D2deqb5vzifef1135172025-09-02T08:58:41.809ZYES2025 Project PromotionsNOhttps://video.igem.org/w/367ErDkAhV1fjWNwGYwEXvhttps://video.igem.org/lazy-static/thumbnails/49b9fc59-3fad-4dd6-babd-d4f06cdece4b.jpgTsinghua-M: The Fermentor's Legend: Three Yeasts, One Cure (2025) - Project Promotion [English]**Title:** The Fermentor's Legend: Three Yeasts, One Cure **Description:** In a bustling fermenter, some yeasts are suffering from extreme heat, toxic ROS, and crushing osmotic pressure. Desperate, three ailing yeast seek help from a wise "old Chinese medicine yeast"—a healer steeped in the legend of resilience. Drawing on the ancient philosophy of balance, the healer reveals their secret: a tripartite oscillator, a self-regulating genetic loop that "feels" stress like a pulse, translates it into rhythmic signals, and triggers precise stress-defenses. [Official Page](https://teams.igem.org/5805)https://static.igem.org/peertube/streaming-playlists/hls/10e91a2d-f181-4add-978e-936d1d4d7d9b/9030ff1f-9b0d-4f4b-a5c7-1bcf9ba1856f-master.m3u8https://video.igem.org/videos/embed/367ErDkAhV1fjWNwGYwEXv1230332025-09-02T09:44:41.448ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mfitfbXsf6fZy1wvi3LCdYhttps://video.igem.org/lazy-static/thumbnails/fece0dad-dc5c-4a96-ad32-dd695657c241.jpgUCLouvain: SyntcoLAB (2025) - Project Promotion [English]**Title:** SyntcoLAB **Description:** Welcome to SyntcoLAB, a synthetic consortium of lactic acid bacteria. [Wiki](https://2025.igem.wiki/uclouvain) | [Official Page](https://teams.igem.org/5897)https://static.igem.org/peertube/streaming-playlists/hls/a3f5f3bb-f200-44bb-adec-869ebc6618e0/3bbf4810-beee-410c-b9fa-a728972b2e15-master.m3u8https://video.igem.org/videos/embed/mfitfbXsf6fZy1wvi3LCdY1140202025-09-02T10:05:57.851ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uXxRjEUF7zgrxxnQHZ9NvMhttps://video.igem.org/lazy-static/thumbnails/632948ea-e8cc-4128-a05b-42b0dedfbc0f.jpgTaipei-KCISLK-V3: HeartBeaters (2025) - Project Promotion [English]**Title:** HeartBeaters **Description:** This is the project promotion video for Heartbeaters where we wish to raise awareness on the significance of cardiovascular diseases, our detection kit's highlights that makes it stand out from other past products, as well as addressing several common concerns such as cost or motivation that are presented by our target audience. [Wiki](https://2025.igem.wiki/taipei-kcislk-v3) | [Official Page](https://teams.igem.org/5598)https://static.igem.org/peertube/streaming-playlists/hls/ea816b17-2d55-47d5-8202-6368db2aad27/1ba5355f-eb65-47a3-9883-044269c7ae9c-master.m3u8https://video.igem.org/videos/embed/uXxRjEUF7zgrxxnQHZ9NvM12251962025-09-02T10:16:49.098ZYES2025 Project PromotionsNOhttps://video.igem.org/w/vKdocEoTehvuFtPaiQRhWmhttps://video.igem.org/lazy-static/thumbnails/9a25ba07-1bab-46e5-9ad8-74ec66d6993c.jpgSUSTechOCEAN: OASIS: Optogenetic Activation System for Intelligent Surfactin exp... (2025) - Proj...**Title:** OASIS: Optogenetic Activation System for Intelligent Surfactin expression **Description:** Covering over 70% of Earth’s surface, the ocean regulates climate and sustains life, with phytoplankton serving as the foundation of marine food webs. However, harmful algal blooms (HABs) have become an escalating global problem, devastating ecosystems and aquaculture. Detection is often hindered by cloud-covered satellite images, allowing blooms to develop unnoticed until severe damage occurs. This video showcases the SUSTech-China team’s innovative solution that combines artificial intelligence and synthetic biology to address this challenge. Using deep learning models, we predict HAB risk in advance, then employ optogenetic control to precisely regulate the engineered bacterium Bacillus subtilis for targeted Surfactin C14 production—a potent, biodegradable, and low-toxicity biosurfactant with strong algicidal activity. When the prediction threshold is reached, blue light activates Surfactin expression to suppress harmful algae growth, while red light triggers a biosafety kill switch. This mechanism leverages the phage-derived YonE protein to deplete NAD⁺, ensuring escaped bacteria cannot survive in natural environments. Through a seamless integration of satellite monitoring, AI forecasting, light-controlled microbial responses, and robust biosafety design, our project demonstrates a proactive, intelligent defense system against HABs—advancing the vision of “Smarter Oceans, Sustainable Futures.” [Wiki](https://2025.igem.wiki/sustechocean) | [Official Page](https://teams.igem.org/5576)https://static.igem.org/peertube/streaming-playlists/hls/f0e1a268-822a-4660-9a13-023bc0735198/9357a650-324b-460a-8d6a-5a8b5dd9aa20-master.m3u8https://video.igem.org/videos/embed/vKdocEoTehvuFtPaiQRhWm1230122025-09-02T13:50:36.535ZYES2025 Project PromotionsNOhttps://video.igem.org/w/uUVdEd1gWZ5iwnccVhXzNHhttps://video.igem.org/lazy-static/thumbnails/6cc6ef0f-a45d-4b1c-949d-29b89aff0650.jpgJiangnan-China: LOGO (2025)Jiangnan-China: LOGO (2025)https://static.igem.org/peertube/streaming-playlists/hls/ea235afd-bacc-477a-96f6-3ef493dd7331/58f2a021-6ce4-4c17-8ffb-acfab06e1bfb-master.m3u8https://video.igem.org/videos/embed/uUVdEd1gWZ5iwnccVhXzNH7012025-09-02T13:03:32.344ZYES2025 TeamsNOhttps://video.igem.org/w/pxciEpt2he8cKzYMhq5sEahttps://video.igem.org/lazy-static/thumbnails/24facf99-caf4-4403-a0ea-66133cb10cf8.jpgOUC-China: Carbon to Sugar: Engineering a Faster Climate Fix (2025) - Project Promotion [English]**Title:** Carbon to Sugar: Engineering a Faster Climate Fix **Description:** Carbon emissions are pushing our planet to its limits—rising temperatures, vanishing biodiversity, and extreme weather demand urgent action. Our iGEM team engineered Aureobasidium, a microbe that turns cheap, CO₂-derived methanol into valuable pullulan (sugar), acting like a 500-acre forest in just a single bioreactor. Join us in reimagining carbon capture—where biology meets innovation for a cooler future. [Wiki](https://2025.igem.wiki/ouc-china) | [Official Page](https://teams.igem.org/5570)https://static.igem.org/peertube/streaming-playlists/hls/be9d3674-0154-4f03-b157-5f932302d2ad/e96a4f3a-7f90-438b-9025-7a6e37f59575-master.m3u8https://video.igem.org/videos/embed/pxciEpt2he8cKzYMhq5sEa1100182025-09-02T13:58:12.925ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6Pewi2oFJwYAstRSNtov9Whttps://video.igem.org/lazy-static/thumbnails/f2b2bd3f-47e9-4a20-b9a3-8ba75ebcd33f.jpgAEGIS: The Story Behind of Our Team Name (2025) - Project Promotion [English]**Title:** The Story Behind of Our Team Name **Description:** The name AEGIS reflects the essence and mission of our project. In this video, we will share the story behind our name and reveal how this vision shapes our project for iGEM 2025. [Wiki](https://2025.igem.wiki/aegis) | [Official Page](https://teams.igem.org/5999)https://static.igem.org/peertube/streaming-playlists/hls/2f15fbe1-2cc9-4212-b24c-fcce5b86c3fa/d3830adf-043c-474f-9e09-8009dae2d9ac-master.m3u8https://video.igem.org/videos/embed/6Pewi2oFJwYAstRSNtov9W1200432025-09-02T14:30:32.651ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gkiq7dvZEA8FW3iLUWAt4khttps://video.igem.org/lazy-static/thumbnails/d03d7ffb-7470-4c0d-b720-52e5fbc226f1.jpgVIT-Vellore: Mumbai AIIM (2025) [Hindi]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/7c2af1bd-a28c-43c6-845f-1d95a87d9a3d/277faa83-f703-4c18-a650-4a648f8a973c-master.m3u8https://video.igem.org/videos/embed/gkiq7dvZEA8FW3iLUWAt4k23002025-09-02T18:43:08.996ZYES2025 TeamsNOhttps://video.igem.org/w/kuD56SXwLuEG4CrLroivBJhttps://video.igem.org/lazy-static/thumbnails/eab9665a-169b-439f-9063-3aa8e79ece97.jpgVIT-Vellore: Mumbai AIIM Pt.2 (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/9ddd4e44-df42-4e1f-9d9d-7a4d22225954/8483826e-114a-47b4-9845-19e92183be78-master.m3u8https://video.igem.org/videos/embed/kuD56SXwLuEG4CrLroivBJ20032025-09-02T18:43:58.457ZYES2025 TeamsNOhttps://video.igem.org/w/kSR5DC3w8CoPafru55oMFahttps://video.igem.org/lazy-static/thumbnails/98a76f74-32d6-4966-9d77-8be38efaf613.jpgNanjing-China: Sign Language: Hello! Nice to meet you! (2025) [Chinese]Sign Language: Hello! Nice to meet you!https://static.igem.org/peertube/streaming-playlists/hls/a0f711db-8d04-432c-be90-e075b845fbe3/8a56dd0b-b6f3-45c0-8084-2f3d8293a7a2-master.m3u8https://video.igem.org/videos/embed/kSR5DC3w8CoPafru55oMFa5062025-09-03T04:24:16.122ZYES2025 TeamsNOhttps://video.igem.org/w/7dazxeWrQM8fU2junnEYcghttps://video.igem.org/lazy-static/thumbnails/52bd897d-3ddf-4777-825c-39a7e7e288fe.jpgNanjing-China: Sign Language: Hello, nice to meet you. (2025) [Chinese]Sign Language: Hello, nice to meet you.https://static.igem.org/peertube/streaming-playlists/hls/3249a8f6-4186-4516-85c8-1614f8f451cd/91f47c43-0904-426f-b3b0-f2e64f56cf63-master.m3u8https://video.igem.org/videos/embed/7dazxeWrQM8fU2junnEYcg7012025-09-03T04:24:26.273ZYES2025 TeamsNOhttps://video.igem.org/w/qmbcAKZKbKASYPocsT7kTvhttps://video.igem.org/lazy-static/thumbnails/b74de6cf-df8f-44ff-a0f2-0cd211a3d9ce.jpgNanjing-China: Sign Language: This is my first time to Beijing. (2025) [Chinese]Sign Language: This is my first time to Beijing.https://static.igem.org/peertube/streaming-playlists/hls/c52c7d3c-9223-4576-afb8-b19ebcb4e177/d49db13b-9431-4169-bcdd-cf22b1fd35fe-master.m3u8https://video.igem.org/videos/embed/qmbcAKZKbKASYPocsT7kTv6012025-09-03T04:24:35.251ZYES2025 TeamsNOhttps://video.igem.org/w/5pofsVG5kY9zg6K5AnNnAbhttps://video.igem.org/lazy-static/thumbnails/5a8d98aa-872d-4c0f-9a40-a239af1b324d.jpgNanjing-China: Sign Language: My mom made a lot of dishes. They are really delicious! (2025) [Chi...Sign Language: My mom made a lot of dishes. They are really delicious!https://static.igem.org/peertube/streaming-playlists/hls/23a85f7e-3735-4b66-bb5e-46b4af6cabf2/0fab82b4-39ef-4455-97eb-20ad682178dc-master.m3u8https://video.igem.org/videos/embed/5pofsVG5kY9zg6K5AnNnAb8002025-09-03T04:24:46.916ZYES2025 TeamsNOhttps://video.igem.org/w/sasReFMS3WAyAzNabzQ115https://video.igem.org/lazy-static/thumbnails/ca0034a3-67bc-4b57-a44d-61f3839aa339.jpgNanjing-China: Sign Language: A flock of birds flew away from the tree. (2025) [Chinese]Sign Language: A flock of birds flew away from the tree.https://static.igem.org/peertube/streaming-playlists/hls/d3dfd866-3867-43e2-9b33-cf259f34af14/691e7b06-4b10-4c71-ae48-d84d2592abf5-master.m3u8https://video.igem.org/videos/embed/sasReFMS3WAyAzNabzQ11510002025-09-03T04:25:26.118ZYES2025 TeamsNOhttps://video.igem.org/w/eysX6cZvJRHVGWDiyTH5dwhttps://video.igem.org/lazy-static/thumbnails/40343b17-c3f6-4a3f-a579-5ff47735890f.jpgNanjing-China: Sign Language: Remember what the teacher said, don't forget. (2025) [Chinese]Sign Language: Remember what the teacher said, don't forget.https://static.igem.org/peertube/streaming-playlists/hls/6dcf362d-f59c-4cab-927b-bdea657f16be/1c7c2d6d-0c0a-47ce-b24a-3c0f7b7c3093-master.m3u8https://video.igem.org/videos/embed/eysX6cZvJRHVGWDiyTH5dw9002025-09-03T04:25:38.396ZYES2025 TeamsNOhttps://video.igem.org/w/eGSGCzvWQMLQYQau7WZrbghttps://video.igem.org/lazy-static/thumbnails/167281b9-31c6-4b65-9d94-0549ca290b52.jpgNanjing-China: Sign Language: Thank you very much for your help. (2025) [Chinese]Sign Language: Thank you very much for your help.https://static.igem.org/peertube/streaming-playlists/hls/6efbcc76-fe7d-44d4-b09c-20d37d1a3e5f/701f64ee-100f-420d-9c29-db22fad67ba7-master.m3u8https://video.igem.org/videos/embed/eGSGCzvWQMLQYQau7WZrbg5002025-09-03T04:26:12.556ZYES2025 TeamsNOhttps://video.igem.org/w/awSfae4ksGjZG48y8f81rUhttps://video.igem.org/lazy-static/thumbnails/4762b11a-70df-4fc0-8626-bcc3e2935f45.jpgNanjing-China: Sign Language: I, you, he (she), we, you, they (2025) [Chinese]Sign Language: I, you, he (she), we, you, theyhttps://static.igem.org/peertube/streaming-playlists/hls/4d31866b-a4e3-4258-8d31-63de6b0f83b6/b5868de5-aab4-4c65-9626-ba8762a293f6-master.m3u8https://video.igem.org/videos/embed/awSfae4ksGjZG48y8f81rU5022025-09-03T04:26:56.523ZYES2025 TeamsNOhttps://video.igem.org/w/fnGdu3dHV52eMe5mPVyBPahttps://video.igem.org/lazy-static/thumbnails/ddff2cc5-6baa-4a4d-9db8-57ef34100e3a.jpgNanjing-China: Sign Language: Please, please sit down, please wait, please treat, welcome! (2025)...Sign Language: Please, please sit down, please wait, please treat, welcome!https://static.igem.org/peertube/streaming-playlists/hls/7467580b-9534-4a6f-81a3-151576622a4b/a0316319-1b4d-4fb2-b770-0c92395ed3d5-master.m3u8https://video.igem.org/videos/embed/fnGdu3dHV52eMe5mPVyBPa14022025-09-03T04:41:48.419ZYES2025 TeamsNOhttps://video.igem.org/w/k3fjFZGYsCRsMseoXBPX7ehttps://video.igem.org/lazy-static/thumbnails/cd6a0c1e-e929-4395-b812-2bbe1668755a.jpgNanjing-China: Sign Language: Good, bad, or good and bad? (2025) [Chinese]Sign Language: Good, bad, or good and bad?https://static.igem.org/peertube/streaming-playlists/hls/9a2df2ce-ef16-46d6-b7f8-8cff9fcf7e0d/2bf5e08d-d99f-471f-8c3a-8cc1c4284633-master.m3u8https://video.igem.org/videos/embed/k3fjFZGYsCRsMseoXBPX7e7002025-09-03T04:52:39.607ZYES2025 TeamsNOhttps://video.igem.org/w/ng8wfrHmFti98Nm8CzcJxThttps://video.igem.org/lazy-static/thumbnails/c65db811-fd8f-4f2a-ab05-d6f9ed753a74.jpgNanjing-China: Sign Language: Is there, isn't there, is there or isn't there? (2025) [Chinese]Sign Language: Is there, isn't there, is there or isn't there?https://static.igem.org/peertube/streaming-playlists/hls/ac2cb427-040f-4b0e-8f19-c91e6562c229/b71500b4-0fe6-4c5a-8539-c4fcf9fa2fbd-master.m3u8https://video.igem.org/videos/embed/ng8wfrHmFti98Nm8CzcJxT6022025-09-03T04:52:49.219ZYES2025 TeamsNOhttps://video.igem.org/w/n4kwM2MjteWkgbQVMVHRzihttps://video.igem.org/lazy-static/thumbnails/7bd5dd65-7e5e-4424-bf36-f29487632357.jpgNanjing-China: Sign Language: Thank you, thank you very much, you're welcome (2025) [Chinese]Sign Language: Thank you, thank you very much, you're welcomehttps://static.igem.org/peertube/streaming-playlists/hls/aa872de9-a86e-42d0-b426-b30e8a577c87/cdcb7cb0-5919-4736-b2da-b2557dcde8a8-master.m3u8https://video.igem.org/videos/embed/n4kwM2MjteWkgbQVMVHRzi8002025-09-03T04:53:00.292ZYES2025 TeamsNOhttps://video.igem.org/w/rq5oWicm4wSiTrdfMsEboVhttps://video.igem.org/lazy-static/thumbnails/bae3523d-1178-4dd4-b1f4-e63f7737763d.jpgNanjing-China: Sign Language: Help, sorry, goodbye (2025) [Chinese]Sign Language: Help, sorry, goodbyehttps://static.igem.org/peertube/streaming-playlists/hls/cdd10699-0733-4d0a-85a3-9293068dbbc9/7bb1748f-92af-40d7-bb25-79a91e78243d-master.m3u8https://video.igem.org/videos/embed/rq5oWicm4wSiTrdfMsEboV8002025-09-03T04:53:11.578ZYES2025 TeamsNOhttps://video.igem.org/w/scxiLzEXLuFkKmKES5D3Zihttps://video.igem.org/lazy-static/thumbnails/7c6ca45c-48ee-47a0-871d-d369e810fc57.jpgNanjing-China: Sign Language: Relationship, no relationship (2025) [Chinese]Sign Language: Relationship, no relationshiphttps://static.igem.org/peertube/streaming-playlists/hls/d42a1471-80b1-43a9-b656-aea3b71e238b/52e88a12-2eb4-4eaf-adf4-036a7728921b-master.m3u8https://video.igem.org/videos/embed/scxiLzEXLuFkKmKES5D3Zi6002025-09-03T04:53:20.899ZYES2025 TeamsNOhttps://video.igem.org/w/qttd7FFVkMWD52VqcVvoZohttps://video.igem.org/lazy-static/thumbnails/fe73a4af-126d-403e-9a6f-b4d7b568c2ee.jpgNanjing-China: Sign Language: Are you married? (2025) [Chinese]Sign Language: Are you married?https://static.igem.org/peertube/streaming-playlists/hls/c6312d7d-bf6a-438c-bac0-02bf1dc7a650/d612691f-af53-48f3-94ae-659cc5f65aa8-master.m3u8https://video.igem.org/videos/embed/qttd7FFVkMWD52VqcVvoZo6002025-09-03T04:53:29.653ZYES2025 TeamsNOhttps://video.igem.org/w/jxbQ7XYnBZvSFqBzHMknVGhttps://video.igem.org/lazy-static/thumbnails/fda946bf-bf6d-488c-95de-d8f01544e496.jpgNanjing-China: Sign Language: Are you married? (2025) [Chinese]Sign Language: Do you have a girlfriend (boyfriend)?https://static.igem.org/peertube/streaming-playlists/hls/961f3a0d-2163-4861-b4a6-e1f648c6df46/68825ce9-5696-4ac0-91c2-abf0904ad88d-master.m3u8https://video.igem.org/videos/embed/jxbQ7XYnBZvSFqBzHMknVG7012025-09-03T04:53:40.176ZYES2025 TeamsNOhttps://video.igem.org/w/aYgpq1imToVchh2Ux9YdQ8https://video.igem.org/lazy-static/thumbnails/3a0767c5-1306-497d-b87a-27db3e8a67f4.jpgNanjing-China: Sign Language: Do you have children? Are they boys or girls? How old are they? (20...Sign Language: Do you have children? Are they boys or girls? How old are they?https://static.igem.org/peertube/streaming-playlists/hls/50bd6454-d914-4cc4-96e9-e3ac3e237bb7/1901931f-e60f-470e-9a46-c0fbdb4ed76c-master.m3u8https://video.igem.org/videos/embed/aYgpq1imToVchh2Ux9YdQ89002025-09-03T04:54:45.275ZYES2025 TeamsNOhttps://video.igem.org/w/kTpr5sY42HNcgXchsW68jhhttps://video.igem.org/lazy-static/thumbnails/fe57bfca-e51e-4428-b9a0-e9a0533e954a.jpgNanjing-China: Sign Language: Is that your child? Yes, that's my son. (2025) [Chinese]Sign Language: Is that your child? Yes, that's my son.https://static.igem.org/peertube/streaming-playlists/hls/a10b01ec-8e44-4791-a661-0bc1cfe1d708/cf744441-f7da-448d-9e5b-3f3edd9d3817-master.m3u8https://video.igem.org/videos/embed/kTpr5sY42HNcgXchsW68jh7002025-09-03T04:55:23.991ZYES2025 TeamsNOhttps://video.igem.org/w/bPyeCJU7zx2Y5EEnTorvMAhttps://video.igem.org/lazy-static/thumbnails/2e4b065d-e7f1-45c6-b6de-f616e40b4c18.jpgNanjing-China: Sign Language: What is your job? (2025) [Chinese]Sign Language: What is your job?https://static.igem.org/peertube/streaming-playlists/hls/579f3598-079e-4079-a073-0515809bdbd0/8502294a-5f74-4d15-b4e8-2bc16df55cd9-master.m3u8https://video.igem.org/videos/embed/bPyeCJU7zx2Y5EEnTorvMA5002025-09-03T04:56:25.670ZYES2025 TeamsNOhttps://video.igem.org/w/sa65W63UFGSXk9kTMc9tz6https://video.igem.org/lazy-static/thumbnails/e13bdab7-1817-4bcb-9379-14ac6263dae4.jpgNanjing-China: Sign Language: How many people are there in your family? (2025) [Chinese]Sign Language: How many people are there in your family?https://static.igem.org/peertube/streaming-playlists/hls/d3d26ecf-dd37-4744-a3d0-03d1a3a0609b/6af5c774-7a6e-4e10-b17f-79ecca6cf750-master.m3u8https://video.igem.org/videos/embed/sa65W63UFGSXk9kTMc9tz66002025-09-03T04:56:34.566ZYES2025 TeamsNOhttps://video.igem.org/w/uz49kWpaMSrD1t6jFewe49https://video.igem.org/lazy-static/thumbnails/dc7cd0a6-5a55-4edc-94fb-43a81ef2aa44.jpgNanjing-China: Sign Language: There are five people in my family: my grandfather, father, mother,...Sign Language: There are five people in my family: my grandfather, father, mother, brother, and me.https://static.igem.org/peertube/streaming-playlists/hls/e75d5d46-c267-43c3-9388-15c06dce8d6a/af1d88a6-be3f-4866-8e0f-519b1fbba871-master.m3u8https://video.igem.org/videos/embed/uz49kWpaMSrD1t6jFewe4914032025-09-03T04:56:51.360ZYES2025 TeamsNOhttps://video.igem.org/w/o9n1kxnd7eUZYZjoVqPNkehttps://video.igem.org/lazy-static/thumbnails/967be782-a412-412b-9337-9458c3f8d4ba.jpgNanjing-China: Sign Language: What time is it now? (2025) [Chinese]Sign Language: What time is it now?https://static.igem.org/peertube/streaming-playlists/hls/b353f22b-0cb8-47ce-a419-a017fa12254b/112ab0f0-e05b-4982-a9e2-997c47cd0c71-master.m3u8https://video.igem.org/videos/embed/o9n1kxnd7eUZYZjoVqPNke5002025-09-03T04:56:59.434ZYES2025 TeamsNOhttps://video.igem.org/w/aoFkZ6kz9aFyLs8txGW9uNhttps://video.igem.org/lazy-static/thumbnails/288e56a1-ff2f-40bb-8216-a2fa4411cfed.jpgNanjing-China: Sign Language: What time is it now? (2025) [Chinese]Sign Language: 12 noon.https://static.igem.org/peertube/streaming-playlists/hls/4c0cdb9a-6c9c-4dd8-af4a-ec820294a936/2976d4f8-6367-44ea-bb1b-8e8e4bb129f2-master.m3u8https://video.igem.org/videos/embed/aoFkZ6kz9aFyLs8txGW9uN4002025-09-03T04:57:07.047ZYES2025 TeamsNOhttps://video.igem.org/w/pD5RM4qyALhtuD7TgTHesxhttps://video.igem.org/lazy-static/thumbnails/60739c30-405d-437a-a1a2-2aae2a2062b1.jpgNanjing-China: Sign Language: Let's go eat together? What would you like to eat? (2025) [Chinese]Sign Language: Let's go eat together? What would you like to eat?https://static.igem.org/peertube/streaming-playlists/hls/bf6fb3e1-3a9b-4173-a0fb-b8b6ebe1668f/5fedc28c-d9a2-4e82-94eb-2fe7615c2589-master.m3u8https://video.igem.org/videos/embed/pD5RM4qyALhtuD7TgTHesx9002025-09-03T04:57:19.370ZYES2025 TeamsNOhttps://video.igem.org/w/jdzxtnWvK9XpFY1vaqWycdhttps://video.igem.org/lazy-static/thumbnails/485cbb6d-a942-43cc-b84c-837dee0dd308.jpgNanjing-China: Sign Language: Thank you, I have already eaten. (2025) [Chinese]Sign Language: Thank you, I have already eaten.https://static.igem.org/peertube/streaming-playlists/hls/938617ad-bb5b-4632-a6dc-6befb9ea9eda/545a8543-c476-4481-a778-0a7f887be7a3-master.m3u8https://video.igem.org/videos/embed/jdzxtnWvK9XpFY1vaqWycd5002025-09-03T04:57:27.428ZYES2025 TeamsNOhttps://video.igem.org/w/ryTR6fD68AMkHFa4JV1pRGhttps://video.igem.org/lazy-static/thumbnails/5fe68d02-9df2-438b-969b-3bf13f304511.jpgNanjing-China: Sign Language: Where did you eat? What did you eat? (2025) [Chinese]Sign Language: Where did you eat? What did you eat?https://static.igem.org/peertube/streaming-playlists/hls/cf0c37f6-f78e-4f99-b694-ef13476cd04e/f6954f9f-4222-4db4-81cb-ed4b710ceda5-master.m3u8https://video.igem.org/videos/embed/ryTR6fD68AMkHFa4JV1pRG7002025-09-03T04:57:37.679ZYES2025 TeamsNOhttps://video.igem.org/w/eUf4aum2mdWcJh53ZxYdQshttps://video.igem.org/lazy-static/thumbnails/f4a589a2-de68-49ec-8f6e-69221b3783aa.jpgNanjing-China: Sign Language: We ate at home. The meal was prepared by my husband/wife, who is a ...Sign Language: We ate at home. The meal was prepared by my husband/wife, who is a great cook.https://static.igem.org/peertube/streaming-playlists/hls/709223d9-b740-4052-b4ef-bbb7904a4d7a/010ee401-3531-4422-a2c1-00cf182f1c12-master.m3u8https://video.igem.org/videos/embed/eUf4aum2mdWcJh53ZxYdQs9002025-09-03T04:57:50.445ZYES2025 TeamsNOhttps://video.igem.org/w/jFbqK3u5niPNbPKyKXPwzMhttps://video.igem.org/lazy-static/thumbnails/19aff46e-0714-4733-84fc-0a4aa735a369.jpgNanjing-China: Sign Language: Next Sunday is off, can I go to your house to try it? (2025) [Chinese]Sign Language: Next Sunday is off, can I go to your house to try it?https://static.igem.org/peertube/streaming-playlists/hls/973cedb3-b0b5-4657-8671-bb39fd0b6e07/8a5eda26-69b1-4b6d-86ca-7e3623e0df04-master.m3u8https://video.igem.org/videos/embed/jFbqK3u5niPNbPKyKXPwzM9012025-09-03T04:58:02.477ZYES2025 TeamsNOhttps://video.igem.org/w/fY576SwTYNmQbAtaT1hkJ4https://video.igem.org/lazy-static/thumbnails/51e015d6-9b79-4d60-a8a1-561f66dbdd42.jpgNanjing-China: Sign Language: welcome! (2025) [Chinese]Sign Language: welcome!https://static.igem.org/peertube/streaming-playlists/hls/79341f4d-6ecd-47a0-a0a7-bc56acf34e53/98f4edb4-c7b4-4956-a860-591523d4e40a-master.m3u8https://video.igem.org/videos/embed/fY576SwTYNmQbAtaT1hkJ44002025-09-03T04:58:10.334ZYES2025 TeamsNOhttps://video.igem.org/w/1yyhVVqJ34S3rQUL5BcxxKhttps://video.igem.org/lazy-static/thumbnails/ea9fe471-9a1d-4c7a-8344-6a59b09cf49a.jpgNanjing-China: Sign Language: There is a sign language class at 6:30 pm on Sunday night, don't fo...Sign Language: There is a sign language class at 6:30 pm on Sunday night, don't forget.https://static.igem.org/peertube/streaming-playlists/hls/048bb383-791e-4c8d-ae9b-d79190dd34f5/24d14500-468b-4c31-b421-f1b06f2ee901-master.m3u8https://video.igem.org/videos/embed/1yyhVVqJ34S3rQUL5BcxxK11002025-09-03T05:11:19.119ZYES2025 TeamsNOhttps://video.igem.org/w/thC7DsScjA45cYhLSQAP8ihttps://video.igem.org/lazy-static/thumbnails/77ba0a99-be47-46c7-bce8-684647f8bbde.jpgNanjing-China: Sign Language: May Day holiday, no classes on April 30th. Change the class to Apri...Sign Language: May Day holiday, no classes on April 30th. Change the class to April 22nd.https://static.igem.org/peertube/streaming-playlists/hls/dcf8e68a-027b-4100-b806-aef4b84569d3/45870129-9e34-46ed-9d83-7c3661d88b1e-master.m3u8https://video.igem.org/videos/embed/thC7DsScjA45cYhLSQAP8i14002025-09-03T05:11:36.604ZYES2025 TeamsNOhttps://video.igem.org/w/v41KYGzoHfafoZGre11ZAShttps://video.igem.org/lazy-static/thumbnails/b0184b1e-67ca-417d-8d5b-b3a0a60bdd63.jpgNanjing-China: Sign Language: Classes will be held next Saturday and Sunday. (2025) [Chinese]Sign Language: Classes will be held next Saturday and Sunday.https://static.igem.org/peertube/streaming-playlists/hls/eb44b840-193a-470c-81a4-47371b8a434a/612d12aa-4849-4e7c-a63e-272936a545cf-master.m3u8https://video.igem.org/videos/embed/v41KYGzoHfafoZGre11ZAS7002025-09-03T05:11:46.672ZYES2025 TeamsNOhttps://video.igem.org/w/n1tAAqXJoDVW66bwXVFPNzhttps://video.igem.org/lazy-static/thumbnails/ea94d5c9-72a0-47a2-8c6f-dfe5e3486f93.jpgNanjing-China: Sign Language: Last night, my mother told me to go to my grandfather's house for d...Sign Language: Last night, my mother told me to go to my grandfather's house for dinner after class this afternoon.https://static.igem.org/peertube/streaming-playlists/hls/aa20eb34-98fe-498d-8222-ae7ae68e8571/e013612b-1f74-4a5c-a377-7a397e2849e9-master.m3u8https://video.igem.org/videos/embed/n1tAAqXJoDVW66bwXVFPNz14002025-09-03T05:12:04.023ZYES2025 TeamsNOhttps://video.igem.org/w/6YSQLyfhNGCJAaYyd6bWV5https://video.igem.org/lazy-static/thumbnails/2e4ca20d-7e53-4a6c-99db-435ede7893c9.jpgNanjing-China: Sign Language: What month and day were you born? (2025) [Chinese]Sign Language: What month and day were you born?https://static.igem.org/peertube/streaming-playlists/hls/306ead1b-23bd-4afc-a794-e99dc9f334fe/13ce1535-9a7c-451a-8869-05b60cc8d1a1-master.m3u8https://video.igem.org/videos/embed/6YSQLyfhNGCJAaYyd6bWV56002025-09-03T05:12:13.406ZYES2025 TeamsNOhttps://video.igem.org/w/o8NzyMfTRVvs4QHhsiFHfLhttps://video.igem.org/lazy-static/thumbnails/57dd8400-82c8-4966-a6e5-f3d9d9a2c199.jpgNanjing-China: Sign Language: I have been in Nanjing for 22 years and got married in April 2000. ...Sign Language: I have been in Nanjing for 22 years and got married in April 2000.https://static.igem.org/peertube/streaming-playlists/hls/b33ff649-8b21-4281-98ec-ee6710f55b04/1e351dec-6272-4525-9733-8eaa9720f646-master.m3u8https://video.igem.org/videos/embed/o8NzyMfTRVvs4QHhsiFHfL10002025-09-03T05:12:26.887ZYES2025 TeamsNOhttps://video.igem.org/w/dgZwcGhnHHBQM6ayfdpZm7https://video.igem.org/lazy-static/thumbnails/24c67fd4-09e1-40eb-8059-35f51f277955.jpgNanjing-China: Sign Language: Which school are you studying at? (2025) [Chinese]Sign Language: Which school are you studying at?https://static.igem.org/peertube/streaming-playlists/hls/636944d4-c665-4a18-bb3e-94774c4c7c2a/dd24d4c7-6941-4960-a2ed-adffd88b17e8-master.m3u8https://video.igem.org/videos/embed/dgZwcGhnHHBQM6ayfdpZm76002025-09-03T05:13:04.035ZYES2025 TeamsNOhttps://video.igem.org/w/bgeFNRf4XqTU6PVxaBmYzQhttps://video.igem.org/lazy-static/thumbnails/eca721bd-7944-4d59-950f-c22f2cb9db3a.jpgNanjing-China: Sign Language: Where is your school located? (2025) [Chinese]Sign Language: Where is your school located?https://static.igem.org/peertube/streaming-playlists/hls/531bfa47-b7c2-4141-ab36-712f7d3ec5ba/e89a11d4-cff1-4cc3-89da-4cac474315d0-master.m3u8https://video.igem.org/videos/embed/bgeFNRf4XqTU6PVxaBmYzQ5002025-09-03T05:13:12.304ZYES2025 TeamsNOhttps://video.igem.org/w/boRL4u2w6AgcV3arkHbnR1https://video.igem.org/lazy-static/thumbnails/eadbf195-e4fb-4651-b0da-4d922595c642.jpgNanjing-China: Sign Language: Do you have classes on weekends? (2025) [Chinese]Sign Language: Do you have classes on weekends?https://static.igem.org/peertube/streaming-playlists/hls/542c6a3e-96ed-4774-aab7-cc0eeabd79ce/1f78da88-d3a5-4c86-a833-fbef2b0c15ea-master.m3u8https://video.igem.org/videos/embed/boRL4u2w6AgcV3arkHbnR14002025-09-03T05:13:19.589ZYES2025 TeamsNOhttps://video.igem.org/w/qups8e42TAdthcNXJxducxhttps://video.igem.org/lazy-static/thumbnails/b3b7d50d-9615-4f30-91b6-8b9d97270614.jpgNanjing-China: Sign Language: What major are you studying? (2025) [Chinese]Sign Language: What major are you studying?https://static.igem.org/peertube/streaming-playlists/hls/c6529af0-cc0d-4205-ac77-521f6b8e3f5d/c96c508b-804f-4606-9cdb-3f8ba0107955-master.m3u8https://video.igem.org/videos/embed/qups8e42TAdthcNXJxducx4002025-09-03T05:13:54.224ZYES2025 TeamsNOhttps://video.igem.org/w/mJawyX5YSx18BCTCGrfkxqhttps://video.igem.org/lazy-static/thumbnails/f9f246fd-dac0-4f8b-8d06-5f896df02ab7.jpgNanjing-China: Sign Language: When will you graduate? (2025) [Chinese]Sign Language: When will you graduate?https://static.igem.org/peertube/streaming-playlists/hls/a7d9e1fe-293c-476c-ac9f-2a40dee74d0a/c8e29c1c-74df-43ac-b783-7b7243e0b539-master.m3u8https://video.igem.org/videos/embed/mJawyX5YSx18BCTCGrfkxq5002025-09-03T05:14:03.468ZYES2025 TeamsNOhttps://video.igem.org/w/uHuP4bnxtZ8tey1umgwY9Hhttps://video.igem.org/lazy-static/thumbnails/efb1b4e6-7bb4-46d1-8108-fdbf0fd926d2.jpgNanjing-China: Sign Language: What do you plan to do after graduation? (2025) [Chinese]Sign Language: What do you plan to do after graduation?https://static.igem.org/peertube/streaming-playlists/hls/e88b21f4-8e71-4a3d-b1b8-9e6446b21bf9/b2fe4396-e6fe-4493-b933-1cd845111a11-master.m3u8https://video.igem.org/videos/embed/uHuP4bnxtZ8tey1umgwY9H6002025-09-03T05:40:14.151ZYES2025 TeamsNOhttps://video.igem.org/w/rHYS81JPJhUEJ84p7YZRCahttps://video.igem.org/lazy-static/thumbnails/7edbf12c-29e0-45f1-b74c-fa5e1d520e6d.jpgNanjing-China: Sign Language: Is this your child? very smart! (2025) [Chinese]Sign Language: Is this your child? very smart!https://static.igem.org/peertube/streaming-playlists/hls/d051013d-d14b-4ebe-a9ea-ff6a07b7ae7d/e798eea8-d729-4e70-a4ee-0ac940efe262-master.m3u8https://video.igem.org/videos/embed/rHYS81JPJhUEJ84p7YZRCa5012025-09-03T05:40:22.863ZYES2025 TeamsNOhttps://video.igem.org/w/vCSKdoqVwCuMb35En3fNZWhttps://video.igem.org/lazy-static/thumbnails/4b5c0772-b51e-4bdb-ade7-4dddb641fc8a.jpgNanjing-China: Sign Language: How old is your child? What grade are you in? (2025) [Chinese]Sign Language: How old is your child? What grade are you in?https://static.igem.org/peertube/streaming-playlists/hls/efff11d2-48e7-412d-8aad-16daeb27a988/4d27f1a7-729f-4a20-ae26-ea58831fd903-master.m3u8https://video.igem.org/videos/embed/vCSKdoqVwCuMb35En3fNZW6002025-09-03T05:40:32.262ZYES2025 TeamsNOhttps://video.igem.org/w/c6Txa46vDjFkGxfCzfbrtGhttps://video.igem.org/lazy-static/thumbnails/8ee7c477-0659-4fd5-be00-10c1a9d0c94e.jpgNanjing-China: Sign Language: How did he do with his studies/exams? (2025) [Chinese]Sign Language: How did he do with his studies/exams?https://static.igem.org/peertube/streaming-playlists/hls/59e70149-1ca5-4dbb-95a9-df87d64bfbda/9e0c57a7-0b76-4aaf-97d3-9fc964a8124a-master.m3u8https://video.igem.org/videos/embed/c6Txa46vDjFkGxfCzfbrtG6012025-09-03T05:40:41.236ZYES2025 TeamsNOhttps://video.igem.org/w/g7nVENupUSVZZgceQC3nMphttps://video.igem.org/lazy-static/thumbnails/4094fe31-e161-4ac7-816a-b0113f27a372.jpgNanjing-China: Sign Language: This is my student. His mother is my classmate in high school. (202...Sign Language: This is my student. His mother is my classmate in high school.https://static.igem.org/peertube/streaming-playlists/hls/7a5d0df2-9888-47d9-bd99-1620de1f808d/0b256834-65d6-4ac7-9f6d-6b073fb2263e-master.m3u8https://video.igem.org/videos/embed/g7nVENupUSVZZgceQC3nMp12002025-09-03T05:40:56.173ZYES2025 TeamsNOhttps://video.igem.org/w/hDYSm4W9MpZ8hR5bAqacxnhttps://video.igem.org/lazy-static/thumbnails/37ad5909-341b-48e5-adc0-c6ff5d5e85e8.jpgNanjing-China: Sign Language: My son didn't do well in the exam this time, so he has to go study ...Sign Language: My son didn't do well in the exam this time, so he has to go study over the weekend.https://static.igem.org/peertube/streaming-playlists/hls/86dfc8c2-b954-4412-83cd-89129f72494f/d8c52ff5-a72d-4ff5-86fe-5ee23bf4876a-master.m3u8https://video.igem.org/videos/embed/hDYSm4W9MpZ8hR5bAqacxn10002025-09-03T05:41:09.189ZYES2025 TeamsNOhttps://video.igem.org/w/o4Bdz8S2ucXKABYPGPL7amhttps://video.igem.org/lazy-static/thumbnails/ebd8231b-4c50-4255-89b8-074be61df37c.jpgNanjing-China: Sign Language: What would you like to drink? (2025) [Chinese]Sign Language: What would you like to drink?https://static.igem.org/peertube/streaming-playlists/hls/b2a9fc23-c803-4e1f-bdc3-64e134639386/4f7ab173-d164-4348-b69a-31f48d4b47b2-master.m3u8https://video.igem.org/videos/embed/o4Bdz8S2ucXKABYPGPL7am5002025-09-03T05:41:17.456ZYES2025 TeamsNOhttps://video.igem.org/w/tjKJpY5dLzynJMdHDReaiyhttps://video.igem.org/lazy-static/thumbnails/793b150a-a231-49d3-a70c-ca2bd73ccee0.jpgNanjing-China: Sign Language: Beverages, beer, coffee, mineral water, orange juice (2025) [Chinese]Sign Language: Beverages, beer, coffee, mineral water, orange juicehttps://static.igem.org/peertube/streaming-playlists/hls/dd4514ff-c502-4de2-9e46-1e769fda81b6/87f34477-3ffb-4024-9a6e-50e72f68fb80-master.m3u8https://video.igem.org/videos/embed/tjKJpY5dLzynJMdHDReaiy11002025-09-03T05:41:32.051ZYES2025 TeamsNOhttps://video.igem.org/w/h5uhHc3PN34TvjSGTK4T4vhttps://video.igem.org/lazy-static/thumbnails/c8cf95a5-1e0c-43d2-ad8b-415c7db917d8.jpgNanjing-China: Sign Language: What do you usually eat? How does it taste? (2025) [Chinese]Sign Language: What do you usually eat? How does it taste?https://static.igem.org/peertube/streaming-playlists/hls/8232a076-4962-4984-af2d-24cb7d147cff/882d227a-fe4b-4ec0-a83e-cc15d504fc24-master.m3u8https://video.igem.org/videos/embed/h5uhHc3PN34TvjSGTK4T4v8052025-09-05T01:19:47.111ZYES2025 TeamsNOhttps://video.igem.org/w/pockewaydtyHSC571Zdcbqhttps://video.igem.org/lazy-static/thumbnails/3576141b-fc04-4c5a-b858-77e5ebfd43b0.jpgNanjing-China: Sign Language: dumpling (2025) [Chinese]Sign Language: dumplinghttps://static.igem.org/peertube/streaming-playlists/hls/bd5b8914-894f-43ac-abfc-e5c16c7bd0d8/df0e5919-5808-41f9-a840-6e77ae7326a5-master.m3u8https://video.igem.org/videos/embed/pockewaydtyHSC571Zdcbq4042025-09-05T01:19:54.782ZYES2025 TeamsNOhttps://video.igem.org/w/dSe28MM7WgnEq4nfn8Rcp4https://video.igem.org/lazy-static/thumbnails/c325e8ab-ea0c-445b-8486-055f3da2ca15.jpgNanjing-China: Sign Language: noodles (2025) [Chinese]Sign Language: noodleshttps://static.igem.org/peertube/streaming-playlists/hls/6830e041-fc4b-401a-8747-c2adbd254ffd/40a13450-bf2b-4077-b31c-687b1637a354-master.m3u8https://video.igem.org/videos/embed/dSe28MM7WgnEq4nfn8Rcp43012025-09-05T19:27:27.694ZYES2025 TeamsNOhttps://video.igem.org/w/peHrnXRWJajgnTQVAvtYjPhttps://video.igem.org/lazy-static/thumbnails/bdee6150-2024-424d-88c0-48817bf83a6f.jpgNanjing-China: Sign Language: Wonton (2025) [Chinese]Sign Language: Wontonhttps://static.igem.org/peertube/streaming-playlists/hls/bc2c651e-6cec-4b79-aad6-937862c234ab/d23cb3a5-fdfc-4dff-8566-350671580717-master.m3u8https://video.igem.org/videos/embed/peHrnXRWJajgnTQVAvtYjP4022025-09-05T19:27:34.581ZYES2025 TeamsNOhttps://video.igem.org/w/auXjvj1RcZPusMK1UepFVihttps://video.igem.org/lazy-static/thumbnails/fff1e169-3e38-4fad-8654-6aaf2cb5aede.jpgNanjing-China: Sign Language: Yuanxiao (2025) [Chinese]Sign Language: Yuanxiaohttps://static.igem.org/peertube/streaming-playlists/hls/4ced2a42-b8c1-4dc1-950d-efa287d680f7/0ede3749-89c5-407b-b37a-7ba3d0b85c27-master.m3u8https://video.igem.org/videos/embed/auXjvj1RcZPusMK1UepFVi3002025-09-05T19:27:41.178ZYES2025 TeamsNOhttps://video.igem.org/w/hS2Uhw6Vui3Z1oBJfuRpBShttps://video.igem.org/lazy-static/thumbnails/63b0b6ab-3b97-46a6-912e-29406c9a818e.jpgNanjing-China: Sign Language: rice (2025) [Chinese]Sign Language: ricehttps://static.igem.org/peertube/streaming-playlists/hls/888e9431-51ed-4279-9426-4c9c3ee38484/f61a91bf-1d23-43af-958d-5cad3205be8e-master.m3u8https://video.igem.org/videos/embed/hS2Uhw6Vui3Z1oBJfuRpBS3002025-09-05T19:27:47.948ZYES2025 TeamsNOhttps://video.igem.org/w/wZTohxxzMej3C6oh1K3UVDhttps://video.igem.org/lazy-static/thumbnails/e898872e-2b4c-4b85-ab2a-c24a0de4a0ed.jpgNanjing-China: Sign Language: porridge (2025) [Chinese]Sign Language: porridgehttps://static.igem.org/peertube/streaming-playlists/hls/fb0738aa-18bf-4b94-b50f-3ef01d14dd77/b47408df-4d9b-4e70-a31f-02274fa2ee13-master.m3u8https://video.igem.org/videos/embed/wZTohxxzMej3C6oh1K3UVD4012025-09-05T19:27:55.685ZYES2025 TeamsNOhttps://video.igem.org/w/8r3z7qhrTwz8k4KtzJBb82https://video.igem.org/lazy-static/thumbnails/3bbaff37-5057-40af-a253-50520c3e0eae.jpgNanjing-China: Sign Language: deep-fried dough sticks (2025) [Chinese]Sign Language: deep-fried dough stickshttps://static.igem.org/peertube/streaming-playlists/hls/3c2f2633-be70-4f5b-af18-a49ad5ef47f7/5389ed8c-a931-4125-bc41-7a18c8eab1b9-master.m3u8https://video.igem.org/videos/embed/8r3z7qhrTwz8k4KtzJBb824002025-09-05T19:28:03.991ZYES2025 TeamsNOhttps://video.igem.org/w/kdPkVB2EZ1fJbhAAPTMppqhttps://video.igem.org/lazy-static/thumbnails/1ebf84c3-8fa2-48f2-ba91-ba750dbe1d54.jpgNanjing-China: Sign Language: bread (2025) [Chinese]Sign Language: breadhttps://static.igem.org/peertube/streaming-playlists/hls/9ba7bc7b-9c31-40c0-a25b-d29a8199c4a2/2fb7ed45-3c9d-4ab9-b078-827848bec309-master.m3u8https://video.igem.org/videos/embed/kdPkVB2EZ1fJbhAAPTMppq4002025-09-05T19:28:11.502ZYES2025 TeamsNOhttps://video.igem.org/w/m46EEMRSqpChJB5oGqjB4mhttps://video.igem.org/lazy-static/thumbnails/3346e5b9-194f-4fc1-b77c-58f8f4f28280.jpgNanjing-China: Sign Language: braised pork (2025) [Chinese]Sign Language: braised porkhttps://static.igem.org/peertube/streaming-playlists/hls/a2657f2a-58e4-4bbc-aca0-f3050c67487e/2bd30a7c-e886-460e-a955-722f2ef801bb-master.m3u8https://video.igem.org/videos/embed/m46EEMRSqpChJB5oGqjB4m5002025-09-05T19:28:19.681ZYES2025 TeamsNOhttps://video.igem.org/w/4NbV1s3iKFWNb4AEEyQAtyhttps://video.igem.org/lazy-static/thumbnails/07bbf6f9-dfde-414c-abcc-25aff3cc37fc.jpgNanjing-China: Sign Language: chicken wings (2025) [Chinese]Sign Language: chicken wingshttps://static.igem.org/peertube/streaming-playlists/hls/1ebe5af7-f7a4-4df7-b472-76498721b5c6/83432849-1451-44b8-b705-37d82b0fe273-master.m3u8https://video.igem.org/videos/embed/4NbV1s3iKFWNb4AEEyQAty4002025-09-05T19:28:27.321ZYES2025 TeamsNOhttps://video.igem.org/w/g4uzeQuk2FzYUqNT5uArUkhttps://video.igem.org/lazy-static/thumbnails/c9a91f65-d9c5-408f-8181-4d24f6e906d7.jpgNanjing-China: Sign Language: bitter (2025) [Chinese]Sign Language: bitterhttps://static.igem.org/peertube/streaming-playlists/hls/79f5eb84-cc8f-4fcf-b146-9ad79d3e4baf/6b205184-947c-4886-8434-54932ed5d269-master.m3u8https://video.igem.org/videos/embed/g4uzeQuk2FzYUqNT5uArUk4002025-09-05T19:28:43.237ZYES2025 TeamsNOhttps://video.igem.org/w/5bj58eCsT8aV1Gftf8Y3W1https://video.igem.org/lazy-static/thumbnails/e6af419a-19cf-42f9-a3b9-65d5c6d35389.jpgNanjing-China: Sign Language: sour (2025) [Chinese]Sign Language: sourhttps://static.igem.org/peertube/streaming-playlists/hls/21d5210a-24a9-442c-93d3-27f86a5a3934/7a6431ec-eb36-425e-86ce-59067d625847-master.m3u8https://video.igem.org/videos/embed/5bj58eCsT8aV1Gftf8Y3W14002025-09-05T19:28:51.051ZYES2025 TeamsNOhttps://video.igem.org/w/4AquRzy96ecjFwBUYWR5AShttps://video.igem.org/lazy-static/thumbnails/ea8f79c0-8d4c-4d4f-943c-39c5394575e2.jpgNanjing-China: Sign Language: sweet (2025) [Chinese]Sign Language: sweethttps://static.igem.org/peertube/streaming-playlists/hls/1d19cd20-98e2-4266-a8a2-b927c41412fe/19ceb793-69f5-4e35-95e1-8596bd118c70-master.m3u8https://video.igem.org/videos/embed/4AquRzy96ecjFwBUYWR5AS3012025-09-05T19:28:58.583ZYES2025 TeamsNOhttps://video.igem.org/w/gNnpcsjZPRuFSzuhxicZg9https://video.igem.org/lazy-static/thumbnails/aeb14ff8-92fb-43a2-8489-04810610a2b8.jpgNanjing-China: Sign Language: salty (2025) [Chinese]Sign Language: saltyhttps://static.igem.org/peertube/streaming-playlists/hls/7ff27b44-590b-409e-90e0-679982a4579a/efcdcd86-32fe-4065-a352-6de74983e5ea-master.m3u8https://video.igem.org/videos/embed/gNnpcsjZPRuFSzuhxicZg93002025-09-05T23:49:40.878ZYES2025 TeamsNOhttps://video.igem.org/w/qxecDAwZw7QSEARSSpqtXWhttps://video.igem.org/lazy-static/thumbnails/21f8ff32-2bdf-4424-8fab-b00000a1acc5.jpgNanjing-China: Sign Language: spicy (2025) [Chinese]Sign Language: spicyhttps://static.igem.org/peertube/streaming-playlists/hls/c6b7851f-6edb-4e8e-8dc3-6de782c869e8/9cc808b5-078e-42c8-951d-947e1736c070-master.m3u8https://video.igem.org/videos/embed/qxecDAwZw7QSEARSSpqtXW4002025-09-06T00:59:08.125ZYES2025 TeamsNOhttps://video.igem.org/w/7MfuF42q8cJ78vMfDBhbQrhttps://video.igem.org/lazy-static/thumbnails/fd28c289-7ce7-42e8-b367-96b35f768ea3.jpgNanjing-China: Sign Language: full (2025) [Chinese]Sign Language: fullhttps://static.igem.org/peertube/streaming-playlists/hls/36e83bec-bfbc-4231-bb5c-a4d084773531/a62d1680-1feb-480a-b3cc-fb9d101d1241-master.m3u8https://video.igem.org/videos/embed/7MfuF42q8cJ78vMfDBhbQr4002025-09-06T00:59:16.066ZYES2025 TeamsNOhttps://video.igem.org/w/1KguvoiaU1JFxLw7XoFvxfhttps://video.igem.org/lazy-static/thumbnails/5ccf86ff-0d5e-45dc-983c-d28a441f02c8.jpgNanjing-China: Sign Language: hungry (2025) [Chinese]Sign Language: hungryhttps://static.igem.org/peertube/streaming-playlists/hls/060a8771-ed0f-44d1-b8cd-adc172fe2380/be6435a9-0a72-4ea7-878b-3aa372622807-master.m3u8https://video.igem.org/videos/embed/1KguvoiaU1JFxLw7XoFvxf4002025-09-06T00:59:23.657ZYES2025 TeamsNOhttps://video.igem.org/w/ci4Px8FZoCk3cVMJP7aCkjhttps://video.igem.org/lazy-static/thumbnails/e956a1d3-57d9-49e5-8ba8-7010508d221d.jpgNanjing-China: Sign Language: Why didn't you come to class yesterday? (2025) [Chinese]Sign Language: Why didn't you come to class yesterday?https://static.igem.org/peertube/streaming-playlists/hls/5b7685f4-7a3c-4c18-af4d-6a3eea006198/57e9de33-e07b-4afd-88e1-d2b2b43db6f6-master.m3u8https://video.igem.org/videos/embed/ci4Px8FZoCk3cVMJP7aCkj7002025-09-06T00:59:33.814ZYES2025 TeamsNOhttps://video.igem.org/w/epcVx4dH5Ak8Kabaavvyc8https://video.igem.org/lazy-static/thumbnails/a84f0d7d-6052-4086-8e5e-f55c28cc3bbe.jpgNanjing-China: Sign Language: Yesterday, my grandparents came to my house and my mother cooked a ...Sign Language: Yesterday, my grandparents came to my house and my mother cooked a lot of dishes.https://static.igem.org/peertube/streaming-playlists/hls/6c8441d2-497a-42df-ad36-87f35bb9f73d/c4a094a3-771e-4b77-a486-871a9321a9a8-master.m3u8https://video.igem.org/videos/embed/epcVx4dH5Ak8Kabaavvyc810002025-09-06T00:59:47.305ZYES2025 TeamsNOhttps://video.igem.org/w/wL63bua14XcTAZJrXH6CfEhttps://video.igem.org/lazy-static/thumbnails/32f34c32-4da2-4fe6-aa55-5b1821c72dba.jpgNanjing-China: Sign Language: Wow, what delicious dishes are there? (2025) [Chinese]Sign Language: Wow, what delicious dishes are there?https://static.igem.org/peertube/streaming-playlists/hls/f919fd7e-746f-459a-9387-d362558cf25a/b8ee8cf6-601f-4ebb-9373-dc68a5d1fc91-master.m3u8https://video.igem.org/videos/embed/wL63bua14XcTAZJrXH6CfE6002025-09-06T00:59:56.257ZYES2025 TeamsNOhttps://video.igem.org/w/tYb1mC37bLQqqXFHthaP8thttps://video.igem.org/lazy-static/thumbnails/24ccd404-b0e4-4446-825d-135bbade897e.jpgNanjing-China: Sign Language: Chicken, duck, fish, and my favorite, braised pork. (2025) [Chinese]Sign Language: Chicken, duck, fish, and my favorite, braised pork.https://static.igem.org/peertube/streaming-playlists/hls/e27e8fba-4beb-47f5-b622-879a20053055/9fce5066-ca89-4a5b-9c87-a2b39111b582-master.m3u8https://video.igem.org/videos/embed/tYb1mC37bLQqqXFHthaP8t10002025-09-06T01:00:10.129ZYES2025 TeamsNOhttps://video.igem.org/w/sZ8Cm32AGysykcjM6EEvJ7https://video.igem.org/lazy-static/thumbnails/7901650e-d269-42ed-b156-421c9e42fabb.jpgNanjing-China: Sign Language: Your mom's cooking must be delicious. (2025) [Chinese]Sign Language: Your mom's cooking must be delicious.https://static.igem.org/peertube/streaming-playlists/hls/da87b33c-2c0e-414e-af01-55b1c939a44e/bd96eeb2-7a19-458c-8797-41e4739f3f29-master.m3u8https://video.igem.org/videos/embed/sZ8Cm32AGysykcjM6EEvJ76012025-09-06T01:00:19.698ZYES2025 TeamsNOhttps://video.igem.org/w/wbT1ZCsu9Wh4YtYY4qs81bhttps://video.igem.org/lazy-static/thumbnails/8320f412-0f8d-4ae8-9f16-1244caa51ec3.jpgNanjing-China: Of course, you're welcome to come to my house and try it when you have time. (2025...Sign Language: Of course, you are welcome to come to my house and taste it when you have time.https://static.igem.org/peertube/streaming-playlists/hls/f47709b5-5e9d-4985-b06e-65d84404bf76/f7786d52-2a95-4a0c-9633-b02ba73ab0fa-master.m3u8https://video.igem.org/videos/embed/wbT1ZCsu9Wh4YtYY4qs81b8012025-09-06T01:00:31.465ZYES2025 TeamsNOhttps://video.igem.org/w/d7Z7Y37xQVeDrBKJ2VrBgGhttps://video.igem.org/lazy-static/thumbnails/d3161f1d-553f-498a-8193-247cc82583f7.jpgNanjing-China: Sign Language: Hello, do you usually cook? (2025) [Chinese]Sign Language: Hello, do you usually cook?https://static.igem.org/peertube/streaming-playlists/hls/622753fb-78a4-48c3-b2b1-dfa5dd28ea52/aec194eb-2e8d-4cbc-a40a-25b76643a051-master.m3u8https://video.igem.org/videos/embed/d7Z7Y37xQVeDrBKJ2VrBgG10002025-09-06T01:00:44.876ZYES2025 TeamsNOhttps://video.igem.org/w/sg6KQGJc5wgDQfvA6UWeGYhttps://video.igem.org/lazy-static/thumbnails/6949dcdf-a5a0-478f-a261-d8664eef015d.jpgNanjing-China: Sign Language: I only know how to make instant noodles. My mom usually cooks. How ...Sign Language: I only know how to make instant noodles. My mom usually cooks. How about you?https://static.igem.org/peertube/streaming-playlists/hls/d4a94f12-ec3c-4372-bf7d-3de81ba6eaec/4fb93ef8-6028-4a5f-9f9d-727a2dbf06d6-master.m3u8https://video.igem.org/videos/embed/sg6KQGJc5wgDQfvA6UWeGY12002025-09-06T01:01:00.499ZYES2025 TeamsNOhttps://video.igem.org/w/62BWHfDNNTT8TxZoVPAUXChttps://video.igem.org/lazy-static/thumbnails/f1fb31fe-5773-4da7-b6b4-431c36b694d5.jpgNanjing-China: Sign Language:I love cooking. I do it when I'm home. (2025) [Chinese]Sign Language:I love cooking. I do it when I'm home.https://static.igem.org/peertube/streaming-playlists/hls/28b79681-88b8-45ae-9334-f65e3972424a/7a04270b-ea30-4a21-8a4b-cddd75818be1-master.m3u8https://video.igem.org/videos/embed/62BWHfDNNTT8TxZoVPAUXC12002025-09-06T01:01:15.479ZYES2025 TeamsNOhttps://video.igem.org/w/vfWBmYW9opJsRVpKQHb6jbhttps://video.igem.org/lazy-static/thumbnails/e8ecca8e-3780-4799-a6ba-57b4fabbbe39.jpgNanjing-China: Sign Language: So what dishes do you usually make? (2025) [Chinese]Sign Language: So what dishes do you usually make?https://static.igem.org/peertube/streaming-playlists/hls/ecef169d-0fa6-4b14-81db-36e4461ca632/1e535022-f4dd-4ed8-8291-c964359c899c-master.m3u8https://video.igem.org/videos/embed/vfWBmYW9opJsRVpKQHb6jb5002025-09-06T01:01:23.812ZYES2025 TeamsNOhttps://video.igem.org/w/4Ay16DsocZSf2qPqYw7Ls8https://video.igem.org/lazy-static/thumbnails/a53239a1-11d4-4cfb-ac06-9db13fffe098.jpgNanjing-China: Sign Language:Stir-fried potatoes, braised vegetables, spicy chicken, braised fish...Sign Language:Stir-fried potatoes, braised vegetables, spicy chicken, braised fish, sweet and sour spare ribs...https://static.igem.org/peertube/streaming-playlists/hls/1d1e6d07-7351-404e-81a7-d8c0f239556b/57568d8b-7e5c-4b1b-896a-0b71f8041f42-master.m3u8https://video.igem.org/videos/embed/4Ay16DsocZSf2qPqYw7Ls89012025-09-06T01:01:36.576ZYES2025 TeamsNOhttps://video.igem.org/w/jr6KBAMfucT6gYAnbaeFiohttps://video.igem.org/lazy-static/thumbnails/870e6954-9858-44ab-b249-fb5a01530e3d.jpgNanjing-China: Sign Language:I can also grill steak, pizza, and pasta. (2025) [Chinese]Sign Language:I can also grill steak, pizza, and pasta.https://static.igem.org/peertube/streaming-playlists/hls/9545a288-f3fe-4c3c-bd86-e175ad436884/40d59b50-7417-46b5-8cb6-4d7c9567d771-master.m3u8https://video.igem.org/videos/embed/jr6KBAMfucT6gYAnbaeFio15002025-09-06T01:01:55.176ZYES2025 TeamsNOhttps://video.igem.org/w/j5soWhJ7FK44GHUfHwHaqHhttps://video.igem.org/lazy-static/thumbnails/84e87143-e71d-4c46-81db-bd78eb6b824c.jpgNanjing-China: Sign Language: No problem! Cooking is easy. I'll teach you when I have the chance....Sign Language: No problem! Cooking is easy. I'll teach you when I have the chance.https://static.igem.org/peertube/streaming-playlists/hls/9263bcdc-0f47-4019-a7fd-97d6f987f145/a19f41c9-4635-427b-8d65-6ccb72badae7-master.m3u8https://video.igem.org/videos/embed/j5soWhJ7FK44GHUfHwHaqH11002025-09-06T01:02:10.249ZYES2025 TeamsNOhttps://video.igem.org/w/5T8QNS4qTyLHRRu6EAPAzQhttps://video.igem.org/lazy-static/thumbnails/9efe23b8-3899-454a-9d21-948b23ed2cfd.jpgNanjing-China: Sign Language: What sports are you interested in? (2025) [Chinese]Sign Language: What sports are you interested in?https://static.igem.org/peertube/streaming-playlists/hls/278851c5-4752-46d5-a158-7f520d40b9ea/4e88bb4b-65a6-46bd-9606-b67015da1d35-master.m3u8https://video.igem.org/videos/embed/5T8QNS4qTyLHRRu6EAPAzQ8002025-09-06T01:02:21.220ZYES2025 TeamsNOhttps://video.igem.org/w/6KeB1T23SgCDmWZgHxbSEKhttps://video.igem.org/lazy-static/thumbnails/8153752d-6f45-44cb-9277-23ec2665334a.jpgNanjing-China: Sign Language:How did you feel after winning (draw, loss) the game? (2025) [Chinese]Sign Language:How did you feel after winning (draw, loss) the game?https://static.igem.org/peertube/streaming-playlists/hls/2e870f1a-3a3e-4765-87a7-fd15c854212f/fc034fd6-2fce-4bbc-aefd-198fd7399cb7-master.m3u8https://video.igem.org/videos/embed/6KeB1T23SgCDmWZgHxbSEK14002025-09-06T01:02:50.740ZYES2025 TeamsNOhttps://video.igem.org/w/3EyQsYsJfn5pk9dicGHaBnhttps://video.igem.org/lazy-static/thumbnails/ff38c6a9-8696-4550-b215-7247bc5a3471.jpgNanjing-China: Sign Language: I am very happy. (Sad, disappointed) (2025) [Chinese]Sign Language: I am very happy. (Sad, disappointed)https://static.igem.org/peertube/streaming-playlists/hls/1594c6b7-adca-481a-92eb-e2782b7e714f/494b0770-9d62-46f6-88d6-b4cc6e897e14-master.m3u8https://video.igem.org/videos/embed/3EyQsYsJfn5pk9dicGHaBn13002025-09-06T01:03:07.028ZYES2025 TeamsNOhttps://video.igem.org/w/w4HDF8kqFGsLg6YjQ8PZoLhttps://video.igem.org/lazy-static/thumbnails/b711e62a-47ea-472f-a807-38fe61c290c0.jpgNanjing-China: Sign Language: Do you think the Jiangsu team can win the championship? (runner-up,...Sign Language: Do you think the Jiangsu team can win the championship? (runner-up, third place)https://static.igem.org/peertube/streaming-playlists/hls/f3770efe-1096-423c-bd54-64bb7d889074/33f6030b-90e5-44a9-8824-f91d8fd65fc3-master.m3u8https://video.igem.org/videos/embed/w4HDF8kqFGsLg6YjQ8PZoL10012025-09-06T01:03:20.715ZYES2025 TeamsNOhttps://video.igem.org/w/mNCLXZQGWXkgLmpvnismmmhttps://video.igem.org/lazy-static/thumbnails/1becdf29-48da-4363-9a7d-540dc2863dd9.jpgNanjing-China: Sign Language: It's a bit difficult, but there's hope. (2025) [Chinese]Sign Language: It's a bit difficult, but there's hope.https://static.igem.org/peertube/streaming-playlists/hls/a879a672-6702-4d7e-ab04-8d536cf84e6c/88e51f6e-de57-4e33-989d-d01b42c6fcd9-master.m3u8https://video.igem.org/videos/embed/mNCLXZQGWXkgLmpvnismmm8012025-09-06T01:03:32.303ZYES2025 TeamsNOhttps://video.igem.org/w/9Q2RroGMaTAAToibDCZzthhttps://video.igem.org/lazy-static/thumbnails/ab45ea37-cba0-4e20-9787-b28360043906.jpgNanjing-China: Sign Language: Are you going to watch a football game this weekend? (2025) [Chinese]Sign Language: Are you going to watch a football game this weekend?https://static.igem.org/peertube/streaming-playlists/hls/477df3a9-9e2c-4a04-83d2-29ba68a49e1a/a8cae022-3517-4246-afe6-d2fde78f152a-master.m3u8https://video.igem.org/videos/embed/9Q2RroGMaTAAToibDCZzth9002025-09-06T01:03:44.942ZYES2025 TeamsNOhttps://video.igem.org/w/gXMoYMA57axg81yg4khdU8https://video.igem.org/lazy-static/thumbnails/a2b9348b-0793-482b-9df6-53d0152b36ba.jpgNanjing-China: Sign Language: No, there's no game this week. I'm going hiking. (2025) [Chinese]Sign Language: No, there's no game this week. I'm going hiking.https://static.igem.org/peertube/streaming-playlists/hls/8142f6b1-88b4-4666-8c8a-901c714c6ccf/4b8b66ac-aec8-4031-893d-8134ba3b4965-master.m3u8https://video.igem.org/videos/embed/gXMoYMA57axg81yg4khdU811002025-09-06T01:03:59.561ZYES2025 TeamsNOhttps://video.igem.org/w/fpwXcYyomEKPVyaa41Pps5https://video.igem.org/lazy-static/thumbnails/cd56cac3-1fdf-4d45-9c4f-bc9f9b79709d.jpgNanjing-China: Sign Language: Are you studying or working now? (2025) [Chinese]Sign Language: Are you studying or working now?https://static.igem.org/peertube/streaming-playlists/hls/74a91f69-066c-40ae-8dc4-c96c89b0af1c/fce2e429-5b03-45e5-bfe7-4e0f1ef1f897-master.m3u8https://video.igem.org/videos/embed/fpwXcYyomEKPVyaa41Pps58002025-09-06T01:04:10.796ZYES2025 TeamsNOhttps://video.igem.org/w/hWrFJLWkKL25H9iqiHigLShttps://video.igem.org/lazy-static/thumbnails/24682a85-d550-4dcf-b68f-630c77547644.jpgNanjing-China: Sign Language: I'm a junior in college. (2025) [Chinese]Sign Language: I'm a junior in college.https://static.igem.org/peertube/streaming-playlists/hls/892c360e-c96e-4078-a83b-cf6636f1459e/5f28e2d4-731c-4863-9706-0039af8a3ae9-master.m3u8https://video.igem.org/videos/embed/hWrFJLWkKL25H9iqiHigLS6002025-09-06T01:04:19.877ZYES2025 TeamsNOhttps://video.igem.org/w/fgRXbVKmiaZowdcXqAo5qThttps://video.igem.org/lazy-static/thumbnails/4caea588-15aa-4b99-98d7-d24d6266e0d8.jpgNanjing-China: Sign Language: What do you want to be after graduation? (2025) [Chinese]Sign Language: What do you want to be after graduation?https://static.igem.org/peertube/streaming-playlists/hls/7396e1aa-a827-4837-aae1-65956071d003/66a5bd0b-794e-454b-a2e6-61171d577ba5-master.m3u8https://video.igem.org/videos/embed/fgRXbVKmiaZowdcXqAo5qT6002025-09-06T01:04:29.033ZYES2025 TeamsNOhttps://video.igem.org/w/dSyLyYEsq35HTf3TcWA2dkhttps://video.igem.org/lazy-static/thumbnails/ee3ded49-e275-40a1-9737-d734de7b4a00.jpgNanjing-China: Sign Language: I want to be a teacher after graduation. (2025) [Chinese]Sign Language: I want to be a teacher after graduation.https://static.igem.org/peertube/streaming-playlists/hls/683d0bf3-1dcf-4ac5-9552-9447c2adac3f/fe8c6ac7-e56d-4116-869a-36d4d5fe7380-master.m3u8https://video.igem.org/videos/embed/dSyLyYEsq35HTf3TcWA2dk6002025-09-06T01:04:38.640ZYES2025 TeamsNOhttps://video.igem.org/w/gPvnzRJkJMTLKNxigfuVuAhttps://video.igem.org/lazy-static/thumbnails/c79e27e6-b84f-41af-b0c5-e154f27e5120.jpgNanjing-China: Sign Language: What do your parents do for a living? (2025) [Chinese]Sign Language: What do your parents do for a living?https://static.igem.org/peertube/streaming-playlists/hls/801b2368-4de0-414f-90b2-11f262104a4e/a94d882c-3eaf-4ea8-9649-052564def464-master.m3u8https://video.igem.org/videos/embed/gPvnzRJkJMTLKNxigfuVuA5012025-09-06T01:04:47.237ZYES2025 TeamsNOhttps://video.igem.org/w/4XZSWnr1R917x2QLKC4UUwhttps://video.igem.org/lazy-static/thumbnails/6e33b4ca-6e52-400a-9c92-a727bbb39306.jpgNanjing-China: Sign Language: Does your father work hard? (2025) [Chinese]Sign Language: Does your father work hard?https://static.igem.org/peertube/streaming-playlists/hls/201cfdf7-764b-4fd3-a4f4-3c9ba55b67ce/2e7e6e74-f395-4b65-b0c5-8103b81a9f9d-master.m3u8https://video.igem.org/videos/embed/4XZSWnr1R917x2QLKC4UUw8012025-09-06T01:04:58.276ZYES2025 TeamsNOhttps://video.igem.org/w/cQyFw8kufeXiofvZrFUuANhttps://video.igem.org/lazy-static/thumbnails/846127c4-d1a6-4cb4-bf97-bbb1a1bcff06.jpgNanjing-China: Sign Language: Did you clock in today? (2025) [Chinese]Sign Language: Did you clock in today?https://static.igem.org/peertube/streaming-playlists/hls/5fdc5de8-8719-4df2-8d76-8b975c838cc2/4201a3aa-cc55-4bbf-b484-0cde2f715057-master.m3u8https://video.igem.org/videos/embed/cQyFw8kufeXiofvZrFUuAN8022025-09-06T01:05:10.244ZYES2025 TeamsNOhttps://video.igem.org/w/8BjrjmzZeLmsj75aYRDjiBhttps://video.igem.org/lazy-static/thumbnails/20656cd2-4616-49f4-b543-908c402141f1.jpgNanjing-China: Sign Language: I checked in. How are you progressing? (2025) [Chinese]Sign Language: I checked in. How are you progressing?https://static.igem.org/peertube/streaming-playlists/hls/3d9e5d4d-51b5-4e91-a9fc-0e35b57ab79d/1672ce50-2172-453b-b1a8-d2a8da665474-master.m3u8https://video.igem.org/videos/embed/8BjrjmzZeLmsj75aYRDjiB6012025-09-06T01:05:19.162ZYES2025 TeamsNOhttps://video.igem.org/w/8TEMhQZUSXiwGGzrS31xdBhttps://video.igem.org/lazy-static/thumbnails/371d3f02-7f9d-49f7-bd87-b8cfc140a9b1.jpgNanjing-China: Sign Language: Not bad, yesterday's data was pretty good. And you? (2025) [Chinese]Sign Language: Not bad, yesterday's data was pretty good. And you?https://static.igem.org/peertube/streaming-playlists/hls/3fe6cd6d-5ae4-42d1-8aee-36978a9f6c57/387109de-40c1-48c7-9ff4-01fdf77f2065-master.m3u8https://video.igem.org/videos/embed/8TEMhQZUSXiwGGzrS31xdB8012025-09-06T01:05:30.397ZYES2025 TeamsNOhttps://video.igem.org/w/hcpvcy8zqexxdy9mKYadT2https://video.igem.org/lazy-static/thumbnails/eb04e6a4-45e6-45e0-a544-fadf8f3a3231.jpgNanjing-China: Sign Language: I'm not very good at it, I haven't met my expectations yet, maybe I...Sign Language: I'm not very good at it, I haven't met my expectations yet, maybe I'll have to work harder.https://static.igem.org/peertube/streaming-playlists/hls/8329e270-f42d-4148-a55f-e2631480bf07/dda03a1b-2cb7-421d-bf66-3a3043d8c41f-master.m3u8https://video.igem.org/videos/embed/hcpvcy8zqexxdy9mKYadT28012025-09-06T01:05:41.861ZYES2025 TeamsNOhttps://video.igem.org/w/eKUKFvrzpcNRpgiAFCy7A4https://video.igem.org/lazy-static/thumbnails/b8f4c00d-efef-407d-b8ee-5f82eaf46ebd.jpgNanjing-China: Sign Language: Come on, what did the mentor say? (2025) [Chinese]Sign Language: Come on, what did the mentor say?https://static.igem.org/peertube/streaming-playlists/hls/6f684b82-5320-4f6b-b14c-37a7e4424d2f/775bab32-fac5-4a9d-9380-e1b99ba179a3-master.m3u8https://video.igem.org/videos/embed/eKUKFvrzpcNRpgiAFCy7A411012025-09-06T01:05:56.437ZYES2025 TeamsNOhttps://video.igem.org/w/5NdeHEZs3ruGfaG74dT5Wzhttps://video.igem.org/lazy-static/thumbnails/ad426b99-d1b1-4a06-b436-24a7a60babf0.jpgNanjing-China: Sign Language: We need to continue improving the experimental procedures and minim...Sign Language: We need to continue improving the experimental procedures and minimize errors as much as possible.https://static.igem.org/peertube/streaming-playlists/hls/26d84f20-5031-4bcf-b170-bd20098a8305/d9ce8717-8011-4641-ba49-4bef8d7851f8-master.m3u8https://video.igem.org/videos/embed/5NdeHEZs3ruGfaG74dT5Wz6012025-09-06T01:06:05.923ZYES2025 TeamsNOhttps://video.igem.org/w/jXLYbSqeZtCteYUbjoDWqzhttps://video.igem.org/lazy-static/thumbnails/56ea4e1f-dc47-45b5-8322-1f7120c6f9af.jpgNanjing-China: Sign Language: Go ahead and wait for your good news. (2025) [Chinese]Sign Language: Go ahead and wait for your good news.https://static.igem.org/peertube/streaming-playlists/hls/998e1dbf-a65d-4523-b3ed-c33460259e11/5aea1a21-7233-43f5-8d7a-20824cf7454f-master.m3u8https://video.igem.org/videos/embed/jXLYbSqeZtCteYUbjoDWqz8032025-09-06T01:06:17.194ZYES2025 TeamsNOhttps://video.igem.org/w/mcParW5FMZSJXYgQdyKykkhttps://video.igem.org/lazy-static/thumbnails/e960db03-2ad0-41e2-a935-2b059321fb12.jpgShenfan-China: Novel Pathways for the Valorization of Lignocellulosic Biomass Waste (2025) - Proj...**Title:** Novel Pathways for the Valorization of Lignocellulosic Biomass Waste **Description:** Lignocellulose is the most abundant renewable resource on Earth, and its valorization through anaerobic fermentation to produce volatile fatty acids (VFAs) represents a highly economically viable pathway. VFAs and their derivatives exhibit broad application prospects in industries such as chemicals, energy, and materials. However, the complex structural properties of lignocellulose render its hydrolysis a rate-limiting step in anaerobic fermentation, resulting in low conversion efficiency, high production costs, and hindering large-scale commercial implementation. This study aims to overcome the bottleneck of low lignocellulose conversion efficiency, offering an innovative technological solution for biomass valorization. The findings will not only contribute to scaling up the biomass industry but also provide critical technical support for ecological civilization construction, advancing green and sustainable development. [Wiki](https://2025.igem.wiki/shenfan-china) | [Official Page](https://teams.igem.org/5997)https://static.igem.org/peertube/streaming-playlists/hls/a39d0513-734b-4804-8561-29d7698c9299/c6b153f4-fe77-4eaa-b01a-4140327241fc-master.m3u8https://video.igem.org/videos/embed/mcParW5FMZSJXYgQdyKykk1200132025-09-03T06:54:26.027ZYES2025 Project PromotionsNOhttps://video.igem.org/w/gofx8zmPBMQsiCsgNn1XKvhttps://video.igem.org/lazy-static/thumbnails/401c8580-489d-46d3-8306-e92737f0ce98.jpgTJUSLS-China: Mining of Marine PET-Degrading Enzymes (2025) - Project Promotion [English]**Title:** Mining of Marine PET-Degrading Enzymes **Description:** The marine metagenome harbors numerous functional genes that have yet to be discovered and engineered for utilization. Currently, most known PET-degrading enzymes are derived from terrestrial sources and function optimally under low salt concentrations, thus their application scenarios are severely restricted by salt concentration. The 2025TJUSLS_China team aims to address the degradation of PET microplastics in high-salt water bodies by mining PET-degrading enzymes from the marine metagenome and conducting targeted modifications to enhance their enzymatic activity. [Wiki](https://2025.igem.wiki/tjusls-china) | [Official Page](https://teams.igem.org/5806)https://static.igem.org/peertube/streaming-playlists/hls/7c9466c3-83f2-42fa-95bb-0e8fd4b09667/d1736008-4a8b-4d52-b23f-6c12e8d0151a-master.m3u8https://video.igem.org/videos/embed/gofx8zmPBMQsiCsgNn1XKv1230572025-09-03T07:41:27.080ZYES2025 Project PromotionsNOhttps://video.igem.org/w/c3hGneoiarcdMXYmzAnY6whttps://video.igem.org/lazy-static/thumbnails/3c76f1f7-c1e3-4148-9927-e812ef008095.jpgYAU-China: Swift Detection of Pseudomonas aeruginosa: Unlocking Water Safety wit... (2025) - Proj...**Title:** Swift Detection of Pseudomonas aeruginosa: Unlocking Water Safety with Proven Enzyme-Substrate Technology **Description:** This video centers on the critical issue of Pseudomonas aeruginosa threatening household water security, elaborating how this pathogen causes diverse infections. It highlights the urgency of rapid detection amid drawbacks of current methods (long test cycles, high costs). By leveraging enzyme - substrate technology (a gold standard for E. coli detection), a novel, cost - effective approach for swift P. aeruginosa identification is introduced, emphasizing its role in safeguarding water - related life essentials. [Wiki](https://2025.igem.wiki/yau-china) | [Official Page](https://teams.igem.org/5853)https://static.igem.org/peertube/streaming-playlists/hls/59664d53-754f-4e59-95c4-8696035e7628/8687fedc-9293-473b-8fae-1068f717317f-master.m3u8https://video.igem.org/videos/embed/c3hGneoiarcdMXYmzAnY6w1180162025-09-03T10:32:51.895ZYES2025 Project PromotionsNOhttps://video.igem.org/w/cq1fbPsHpuFhM8kDYx7eiWhttps://video.igem.org/lazy-static/thumbnails/573c99ea-8aad-4767-8d57-334962c3045d.jpgUtrecht: Swimming Fish (2025)Swimming fish for wiki (webm format)https://static.igem.org/peertube/streaming-playlists/hls/5c6e86c7-32dd-4cda-8203-cedfd477fb84/ef10b317-7827-4fa0-a32f-b1b76b25ae90-master.m3u8https://video.igem.org/videos/embed/cq1fbPsHpuFhM8kDYx7eiW30042025-09-03T15:12:27.369ZYES2025 TeamsNOhttps://video.igem.org/w/vAZSfTrr85zAWsf4FXFefnhttps://video.igem.org/lazy-static/thumbnails/bf845bae-e3a0-4311-a05c-af623b2022d1.jpgNFLSHS-CHINA: Unwanted Wrinkles: Using Synthetic Biology to Decode the Secrets o... (2025) - Proj...**Title:** Unwanted Wrinkles: Using Synthetic Biology to Decode the Secrets of Youth **Description:** We are NFLSHS-CHINA, the iGEM team from Shenzhen Nanshan Foreign Language School (Senior High). Our project aims to address the shortage of astaxanthin in facial masks caused by its high production cost. In this project, we employed a dual T7 promoter system to efficiently express the key genes involved in the astaxanthin biosynthetic pathway, enabling successful astaxanthin production. Through protein structure analysis, we identified the binding pocket responsible for β-carotene hydroxylation, and performed site-directed mutagenesis guided by molecular docking to obtain mutant enzymes with significantly enhanced catalytic efficiency. Finally, through social research, expert interviews, and the development of an astaxanthin facial mask prototype, we demonstrated the promising market potential of our project. [Wiki](https://2025.igem.wiki/nflshs-china) | [Official Page](https://teams.igem.org/5908)https://static.igem.org/peertube/streaming-playlists/hls/efbbf887-4221-4529-8a87-8fd8c21a4fbd/413cd3bf-4631-4498-bfed-20b710ea86e0-master.m3u8https://video.igem.org/videos/embed/vAZSfTrr85zAWsf4FXFefn1220362025-09-03T16:03:45.607ZYES2025 Project PromotionsNOhttps://video.igem.org/w/pB8E82QzQGZx9UKCRhZ2n7https://video.igem.org/lazy-static/thumbnails/e3d927d7-f4f0-4362-8ec4-e5ed375c4c1c.jpgDTU-Denmark: Sequence Mining Video Introduction (2025) [English]A brief introduction to the Drylab's Sequence Mining project, from the 2025 DTU BioBuilders team. Intended for the Wiki page. Wiki link: https://2025.igem.wiki/dtu-denmark/https://static.igem.org/peertube/streaming-playlists/hls/bf29f0a9-723e-486f-9645-3b34bd42e5f4/68a323e4-9b70-48f0-987b-b20de5749426-master.m3u8https://video.igem.org/videos/embed/pB8E82QzQGZx9UKCRhZ2n71790342025-09-04T09:50:30.746ZYES2025 TeamsNOhttps://video.igem.org/w/5RSLLAPTztrQ1bneqAXmWihttps://video.igem.org/lazy-static/thumbnails/d329b2c7-387a-4d9a-9d93-f4efdfe9b7ed.jpgWageningenUR: First green background (2025)A green moving background for the home page Wiki link: https://2025.igem.wiki/wageningenur/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/275b49e5-193a-4bd8-80bc-1a66d5714495/ee52bf5a-1397-4eaf-b525-5f59a2ab9c54-master.m3u8https://video.igem.org/videos/embed/5RSLLAPTztrQ1bneqAXmWi150382025-09-04T19:10:58.228ZYES2025 TeamsNOhttps://video.igem.org/w/a1BWAiVb6gZQUmTnxs69Pbhttps://video.igem.org/lazy-static/thumbnails/f139372e-aabd-4212-9aec-b1fe32cac8ee.jpgWUXI-DSAS: Growing Beyond Earth: Pioneering Martian Agriculture (2025) - Project Promotion [English]**Title:** Growing Beyond Earth: Pioneering Martian Agriculture **Description:** This promotional video begins by introducing the background of Martian agriculture, including the reasons behind it and the potential benefits it offers. It then presents our solution to the survival challenges faced by plants in Mars’ extreme environments—such as dryness, high temperatures, and low temperatures—by engineering plants to produce three stress-resistance proteins. The video also offers a glimpse into our team’s daily laboratory work, followed by a discussion of our project’s future vision and prospects. We believe this technology will mark a significant step forward in enabling sustainable agriculture on Mars. [Wiki](https://2025.igem.wiki/wuxi-dsas) | [Official Page](https://teams.igem.org/5723)https://static.igem.org/peertube/streaming-playlists/hls/48f865c3-5780-4a92-b0ce-e0f108ad9758/ceecb454-2c59-4a6a-b069-427bd7a9b7e8-master.m3u8https://video.igem.org/videos/embed/a1BWAiVb6gZQUmTnxs69Pb1200122025-09-05T02:42:14.935ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wJwvwLwgkVTiuAWuw4YNhFhttps://video.igem.org/lazy-static/thumbnails/a7894dea-3c00-4b3d-9445-325b9a65a50a.jpgTJUSLS-China: bgc (2025)backgroundhttps://static.igem.org/peertube/streaming-playlists/hls/f8e23337-b936-4031-932c-5100ad0f14ef/b59eaeea-993c-487f-ac9a-8d67c5fc0472-master.m3u8https://video.igem.org/videos/embed/wJwvwLwgkVTiuAWuw4YNhF10002025-09-05T09:23:48.135ZYES2025 TeamsNOhttps://video.igem.org/w/1DPXZ5N4MuCbNnWS7cT3C5https://video.igem.org/lazy-static/thumbnails/c32be36f-bec7-4ae5-a6f9-9eaa9be7e91b.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Advanced) - Ep.1 iGEM Introduction (2025) [English]About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Advanced Edition - Episode 1: iGEM Introduction In this episode, we introduce the basic information, history, rules and procedure of iGEM competition. https://static.igem.org/peertube/streaming-playlists/hls/05481441-5a8f-447d-85ef-3885131be25c/2ac470e4-4c9a-4d6f-a741-89d8e309dc66-master.m3u8https://video.igem.org/videos/embed/1DPXZ5N4MuCbNnWS7cT3C5826082025-09-06T02:49:05.543ZYES2025 TeamsNOhttps://video.igem.org/w/s7t9qoLarKQorVYL78CKtwhttps://video.igem.org/lazy-static/thumbnails/02d7d0b0-5869-457f-9d94-c4d0e7cdf3f9.jpgUNC-ChapelHill: Fighting PFAS (2025) - Project Promotion [English]**Title:** Fighting PFAS **Description:** This video introduces UNC iGEM’s innovative approach to tackling PFAS contamination: engineering a novel probiotic that can uptake PFAS in the gut microbiome by removing efflux pumps from E. coli. The project spans both wet lab and dry lab work, from protein modeling and proteomics analysis to ligand similarity research, all aimed at understanding and enhancing PFAS absorption by bacteria. [Wiki](https://2025.igem.wiki/unc-chapelhill) | [Official Page](https://teams.igem.org/5788)https://static.igem.org/peertube/streaming-playlists/hls/d374cbed-7d38-49f4-952b-cdc5af9cac18/cece72b9-f742-4580-bd9c-b2ddb80bbe05-master.m3u8https://video.igem.org/videos/embed/s7t9qoLarKQorVYL78CKtw1230392025-09-05T23:35:03.650ZYES2025 Project PromotionsNOhttps://video.igem.org/w/hxcyeZEUDJxV6Rw6b9EBYjhttps://video.igem.org/lazy-static/thumbnails/cb20486a-1fb7-4555-929c-197cd9d8f486.jpgHIA-Taiwan: PlasMission-To Combat Antimicrobial Resistance (2025) - Project Promotion [English]**Title:** PlasMission-To Combat Antimicrobial Resistance **Description:** Antimicrobial resistance (AMR) is a rising threat to public health, making simple infections harder to treat. Specifically for beta-lactam antibiotics, it is the bacterial enzyme beta-lactamase that breaks them down and makes them unable to function. Our project introduces Beta-Lactamase Inhibitory Protein (BLIP), which blocks the beta-lactamase and allows antibiotics to function again. To deliver the gene, we apply bacterial conjugation in order to transfer the BLIP gene into resistant bacteria. By resensitizing bacteria to existing antibiotics, our approach offers a sustainable and scalable way to fight AMR, starting from environmental measures. [Wiki](https://2025.igem.wiki/hia-taiwan) | [Official Page](https://teams.igem.org/5669)https://static.igem.org/peertube/streaming-playlists/hls/85ed65a1-8f8c-4b58-98f1-04e85434f49e/db3e36c6-296b-485e-8b5d-42102b25e39b-master.m3u8https://video.igem.org/videos/embed/hxcyeZEUDJxV6Rw6b9EBYj1190412025-09-06T02:10:50.644ZYES2025 Project PromotionsNOhttps://video.igem.org/w/wirPNwTjeEoWgx3EZn6oTAhttps://video.igem.org/lazy-static/thumbnails/4619a311-da09-4e9e-ad22-cbb11adf928b.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Advanced) - Ep.3 Basic Theory (2025) [English]About *Synthetic Biology in Seven Days series*: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Advanced Edition - Episode 3: Basic Theory In this episode, we introduce goals, principles, interdisciplinary nature, ethics, and safety of synthetic biology, as well as its connection to iGEM.https://static.igem.org/peertube/streaming-playlists/hls/f561b7f6-7554-4060-89bd-fd5ddc7e6200/d537611f-5af6-4687-976f-d88c39c39a96-master.m3u8https://video.igem.org/videos/embed/wirPNwTjeEoWgx3EZn6oTA631012025-09-06T04:22:41.808ZYES2025 TeamsNOhttps://video.igem.org/w/bYELMCYzUkHGkBRHeXG6zBhttps://video.igem.org/lazy-static/thumbnails/bb0dad09-1743-4890-9fa4-7d5bdae223a1.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Advanced) - Ep.2 Award Criteria & Case Interpret...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Advanced Edition - Episode 2: Award Criteria and Case Interpretation In this episode, we introduce judging process and detailed criteria for each awards or medals, supported with case study of outstanding iGEM projects.https://static.igem.org/peertube/streaming-playlists/hls/58e4ee92-e920-4581-af43-bdf0ceea12e1/8daf5283-219c-436d-86df-273c73e80586-master.m3u8https://video.igem.org/videos/embed/bYELMCYzUkHGkBRHeXG6zB1157002025-09-06T04:59:28.974ZYES2025 TeamsNOhttps://video.igem.org/w/dFotYjaDCKghWhRUXEpygThttps://video.igem.org/lazy-static/thumbnails/57ef242c-3485-4ed6-8424-fb4ee7b269b1.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Advanced) - Ep.6 Ethical Safety (2025) [English]About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Advanced Edition - Episode 6: Ethical Safety In this episode, we introduce the ethical and safety guidelines of the iGEM competition, examine the ethical challenges and governance frameworks in synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/66ad86b0-a96c-4983-9358-cfb6dbbc12f1/3148b800-f1e1-49f6-a4ea-ec3d33993164-master.m3u8https://video.igem.org/videos/embed/dFotYjaDCKghWhRUXEpygT327002025-09-06T05:09:44.281ZYES2025 TeamsNOhttps://video.igem.org/w/9jxpKbJ6b4Fv8Gu7UvMB6Shttps://video.igem.org/lazy-static/thumbnails/eae36397-7531-4d96-bca2-bc21db1fa66a.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Advanced) - Ep.5 Design Modeling (2025) [English]About *Synthetic Biology in Seven Days series*: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Advanced Edition - Episode 5: Design Modeling In this episode, we introduce basic theory and specific practice of synthetic biology modeling.https://static.igem.org/peertube/streaming-playlists/hls/435fda96-cfb7-4dc0-91db-71621bd8ab18/998522ad-076b-4dc2-8a34-0cef4cea5d21-master.m3u8https://video.igem.org/videos/embed/9jxpKbJ6b4Fv8Gu7UvMB6S552002025-09-06T05:27:15.704ZYES2025 TeamsNOhttps://video.igem.org/w/di8pCYL7rmw39rT8gKSA7Vhttps://video.igem.org/lazy-static/thumbnails/b34693d3-04e5-4a16-8603-ef8987c18828.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Advanced) - Ep.4 Experimental Technology (2025) ...About *Synthetic Biology in Seven Days series*: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Advanced Edition - Episode 4: Experimental Technology In this episode, we introduce synthetic biology experimental techniques.https://static.igem.org/peertube/streaming-playlists/hls/6391df81-9798-4b8a-887b-afcaf8adb679/a6ea104b-b1c4-4319-ad64-0e6207f16884-master.m3u8https://video.igem.org/videos/embed/di8pCYL7rmw39rT8gKSA7V690022025-09-06T05:49:25.155ZYES2025 TeamsNOhttps://video.igem.org/w/4aRA95wqgwUTejdqGLnfmzhttps://video.igem.org/lazy-static/thumbnails/8be77fba-4978-4a98-9973-5fdca5e90284.jpgTJUSLS-China: background (2025)background of Wiki pages （https://2025.igem.wiki/tjusls-china/index.html）https://static.igem.org/peertube/streaming-playlists/hls/19abab83-853c-41f9-83b4-8bcc64f585a9/3da9739c-c7f6-4824-9f07-729f36192fef-master.m3u8https://video.igem.org/videos/embed/4aRA95wqgwUTejdqGLnfmz507372025-09-06T12:39:42.472ZYES2025 TeamsNOhttps://video.igem.org/w/qjYb81jSQSHBTxb2FgAFQRhttps://video.igem.org/lazy-static/thumbnails/f79bf29a-29eb-42fa-a993-63f7bf23ae40.jpgQueens-Canada: QGEM-Canada: MacQs - Tackling Cystic Fibrosis by Addressing Biofi... (2025) - Proj...**Title:** QGEM-Canada: MacQs - Tackling Cystic Fibrosis by Addressing Biofilm Formations **Description:** To tackle biofilm, MacQs set out to transfer the native AHL detection system to be compatible in eukaryotic cells - building the foundations for an ex-vivo therapeutic. This was done through the design and testing of a chimeric receptor, and characterizing it with different promoters to create the ideal genetic circuit for this application. [Wiki](https://2025.igem.wiki/queens-canada) | [Official Page](https://teams.igem.org/5801)https://static.igem.org/peertube/streaming-playlists/hls/c501559f-6006-4294-ae7b-a09d83b0a46d/953f4d6c-ace3-41d6-834b-790a68d5957f-master.m3u8https://video.igem.org/videos/embed/qjYb81jSQSHBTxb2FgAFQR1180562025-09-06T18:21:55.770ZYES2025 Project PromotionsNOhttps://video.igem.org/w/mA2UD9xZP5R1P35cvHeBGkhttps://video.igem.org/lazy-static/thumbnails/412982de-a01d-490e-be0a-9251d5434c50.jpgKhanLab-BayArea: Chinese Student Synthetic Biology Discussion (2025) [Chinese]This year our team welcomed a group of students from China to learn about synthetic biology. Avery and Alyssa, members of the team, asked and discussed what the visiting Chinese students understood about synthetic biology. https://2025.igem.wiki/khanlab-bayarea/educationhttps://static.igem.org/peertube/streaming-playlists/hls/a6b73caa-7f2f-441a-8b55-9b8dba865287/e6daf860-9853-4d60-8668-c92852a3eada-master.m3u8https://video.igem.org/videos/embed/mA2UD9xZP5R1P35cvHeBGk320112025-09-07T22:44:26.720ZYES2025 TeamsNOhttps://video.igem.org/w/fR2bHjhykkMe4LFzY4nTEFhttps://video.igem.org/lazy-static/thumbnails/9cc63574-6c5c-47b2-b4fc-2654ee1bebe1.jpgBSDFZ-CHINA: Neurobloom: Early Intervention for Alzheimer’s Disease (2025) - Project Promotion [E...**Title:** Neurobloom: Early Intervention for Alzheimer’s Disease **Description:** Alzheimer’s disease (AD) is a progressive neurodegenerative disorder affecting over 50 million people worldwide, with no cure and limited treatment options. Early intervention is essential, as pathological changes—β-amyloid (Aβ) plaques and tau tangles—begin decades before symptoms. Neurobloom is a synthetic biology-based preventive strategy integrating three engineered systems in the probiotic Escherichia coli Nissle 1917: 1. Sakuranetin production system: Converts naringenin into sakuranetin, a plant flavonoid that reduces Aβ toxicity and neuroinflammation. 2. LPC production system: Expresses Bacteroides ovatus PLA2 to convert dietary phosphatidylcholine into lysophosphatidylcholine (LPC), which inhibits Aβ plaque formation. 3. Biosafety system: Enables engineered bacteria to self-destruct outside the gut, preventing environmental release. This continuous in-situ production addresses medication adherence challenges in elderly patients, lowers costs, and offers a safe, sustainable approach to slowing AD progression and preserving cognitive health. [Wiki](https://2025.igem.wiki/bsdfz-china) | [Official Page](https://teams.igem.org/6029)https://static.igem.org/peertube/streaming-playlists/hls/78381db6-6400-4700-ad30-9680f7c35c27/34230c35-df2d-4988-a62e-ab17d89efdef-master.m3u8https://video.igem.org/videos/embed/fR2bHjhykkMe4LFzY4nTEF1230302025-09-08T04:18:52.837ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9gDZ6EiNqZrLEoSGLnMqjAhttps://video.igem.org/lazy-static/thumbnails/e851a697-2ed6-4fc3-be98-1ced442bece5.jpgUESTC-China: RE-PEAt：Recycling Ethylene glycol to PolyEsters And terephthalate t... (2025) - Proj...**Title:** RE-PEAt：Recycling Ethylene glycol to PolyEsters And terephthalate to p-coumaric acid **Description:** The UESTC-China team has developed a platform—RE-PEAt—that closes the PET loop by coupling enzymatic depolymerization with value-added biosynthesis. Using magnetically immobilized PETase and Tfca, we synergistically hydrolyze PET into ethylene glycol (EG) and terephthalic acid (TPA). Leveraging bioinformatics and synthetic biology, we identified key genes and engineered Escherichia coli to grow on EG as the sole carbon source. This alleviates EG’s competitive inhibition of PET hydrolases and mitigates the adverse effects of TPA accumulation. Downstream, RE-PEAt converts EG into biodegradable polyesteramide and upgrades TPA into the high-value aromatic p-coumaric acid, creating sustainable product streams that feed back into green supply chains. In addition, we constructed a colorimetric biosensor to monitor EG concentrations in real time during cultivation, providing reliable guidance for both the PET hydrolysis and EG conversion stages. By combining reusable, magnetically recoverable biocatalysts with microbial upgrading, RE-PEAt offers an integrated, practical framework for PET upcycling—from depolymerization to the regeneration of materials and chemicals. [Official Page](https://teams.igem.org/5979)https://static.igem.org/peertube/streaming-playlists/hls/42f8acb0-da9e-40fb-b36b-a50e9fc0836e/7bbb705b-47f4-43ee-a081-2d36ee49c5e9-master.m3u8https://video.igem.org/videos/embed/9gDZ6EiNqZrLEoSGLnMqjA1160202025-09-08T05:59:41.384ZYES2025 Project PromotionsNOhttps://video.igem.org/w/euz3USAijBsoRJZk2vNSaqhttps://video.igem.org/lazy-static/thumbnails/1a71cb20-ddf7-4854-a204-eb4a2ba4cbdd.jpgBANZ-SZA: Sweetness without burden (2025) - Project Promotion [English]**Title:** Sweetness without burden **Description:** As the world places increasing emphasis on health and sugar control, sugar-free recipes have sparked a trend across major platforms. The global "SugarSmart" initiative has also been launched, leading to growing discussions and use of sugar substitutes. In our project, we employed genetic engineering techniques to develop microbial strains that produce Thaumatin, a protein-based sweetener. Thaumatin is a natural sweet-tasting protein—a low-calorie, plant-derived sweetener—meaning this technology holds promise for alleviating health issues caused by sugar consumption. Through experiments, we tested the protein's activity under various conditions, thereby validating the feasibility of applying this technology in practice. In the future, our project could be developed into sugar-reducing food products to help people maintain better health. [Wiki](https://2025.igem.wiki/banz-sza) | [Official Page](https://teams.igem.org/5743)https://static.igem.org/peertube/streaming-playlists/hls/6d43fefd-1470-4258-ac1b-abcb390ac00a/a0a95da2-d19d-46c5-b84a-b82af6d27779-master.m3u8https://video.igem.org/videos/embed/euz3USAijBsoRJZk2vNSaq850282025-09-08T06:03:06.733ZYES2025 Project PromotionsNOhttps://video.igem.org/w/ww9nvKzCk7r7i9nT8y4SVahttps://video.igem.org/lazy-static/thumbnails/2f48c600-bbe5-4d2f-94b9-952d0c988f38.jpgLeiden: How to make a PCR (2025) [English]Are you tired of hearing endlessly about PCR but not knowing how to make one? Get a headstart and learn how to make one before you start an internship or your practicals! 1/? Series of Educational Lab Techniques Videos The whole series will be part of our educational programme and available on https://2025.igem.wiki/leiden/education https://static.igem.org/peertube/streaming-playlists/hls/f727a1b4-5889-4228-abcb-25fc9d02e22b/ae1a9387-aced-4b20-bfc2-64ebf1933e34-master.m3u8https://video.igem.org/videos/embed/ww9nvKzCk7r7i9nT8y4SVa289572025-09-08T11:02:46.592ZYES2025 TeamsNOhttps://video.igem.org/w/j8og7mHrUZcuRXMz9E5C5phttps://video.igem.org/lazy-static/thumbnails/a1b4655f-e963-4227-8c56-ff12fc98e9e3.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Intermed.) - Ep.1 iGEM Introduction (2025) [Engl...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Intermediate Edition - Episode 1: iGEM Introduction In this episode, we introduce the history, villages, and awards of iGEM competition along with suggestions for startup iGEMers.https://static.igem.org/peertube/streaming-playlists/hls/92cc6bb9-56c0-472b-bfdb-3ddd9c146fcf/2797e7f3-0c24-4bae-b594-a4c956762a4e-master.m3u8https://video.igem.org/videos/embed/j8og7mHrUZcuRXMz9E5C5p3480102025-09-08T15:25:15.144ZYES2025 TeamsNOhttps://video.igem.org/w/xoQpVrFgET1pcDsNxrNTXKhttps://video.igem.org/lazy-static/thumbnails/4df453f2-e779-44bc-bc35-be002bcd1eae.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Intermed.) - Ep.6 Ethical Safety (2025) [English]About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Intermediate Edition - Episode 6: Ethical Safety In this episode, we discuss ethical challenges and principles in synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/fe3b7f22-ceda-45ff-bb8a-8f60b6f6a26d/b5ee5cd3-284d-4adb-bab0-5235c682722b-master.m3u8https://video.igem.org/videos/embed/xoQpVrFgET1pcDsNxrNTXK273012025-09-08T15:34:02.301ZYES2025 TeamsNOhttps://video.igem.org/w/nkhBzLupmFzY5FKF3DhkQshttps://video.igem.org/lazy-static/thumbnails/83bc3593-974c-4831-9d82-b7007549c08c.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Intermed.) - Ep.3 Basic Theory (2025) [English]About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Intermediate Edition - Episode 3: Basic Theory In this episode, we introduce the definition, research methods, core knowledge, and key terminology of synthetic biology, and share outstanding iGEM project cases.https://static.igem.org/peertube/streaming-playlists/hls/acc1482b-8985-474e-9208-117366ecb3f6/b323c9de-7698-4e5e-812b-ce2a6dd4b295-master.m3u8https://video.igem.org/videos/embed/nkhBzLupmFzY5FKF3DhkQs276012025-09-08T15:42:57.802ZYES2025 TeamsNOhttps://video.igem.org/w/efEY5e5czCFcgr5eqdTh9Ghttps://video.igem.org/lazy-static/thumbnails/eeaf4853-2362-4133-ae53-0d14d8765fa7.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Intermed.) - Ep.4 Experimental Technology (2025)...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Intermediate Edition - Episode 4: Experimental Technology In this episode, we introduce the design and analysis methods of synthetic biology and provide detailed explanation of practical information about experimental techniques such as molecular cloning, microbial culture, protein expression, and purification.https://static.igem.org/peertube/streaming-playlists/hls/6b533abf-ab5a-4441-936a-a96bfd740c30/ebaa7a6c-235a-482e-aec6-75cf52689cba-master.m3u8https://video.igem.org/videos/embed/efEY5e5czCFcgr5eqdTh9G310012025-09-08T15:52:55.056ZYES2025 TeamsNOhttps://video.igem.org/w/uAH6idMsX1jqk5fZFhmuithttps://video.igem.org/lazy-static/thumbnails/9441a719-0deb-4eda-af49-73914b3e641f.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Intermed.) - Ep.5 Design Modeling (2025) [English]About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Intermediate Edition - Episode 5: Design Modeling In this episode, we introduce the importance of modeling in the iGEM competition and its biological foundations, explaining the theories of mathematical modeling, computational tools, and modeling steps, and analyze gene circuit design.https://static.igem.org/peertube/streaming-playlists/hls/e7987e7c-9ebc-4ba0-9dc5-b6e4c046f4a5/34fc8d4c-7bce-46a2-b961-6ddfb5a616c9-master.m3u8https://video.igem.org/videos/embed/uAH6idMsX1jqk5fZFhmuit381002025-09-08T16:05:09.657ZYES2025 TeamsNOhttps://video.igem.org/w/4AC1cja8rKa7KuupJb2sGphttps://video.igem.org/lazy-static/thumbnails/1112d562-aa11-4cde-94cc-b6396e4b01f4.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Intermed.) - Ep.2 Award Criteria & Case Interpre...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Intermediate Edition - Episode 2: Award Criteria and Case Interpretation In this episode, we introduce judging process and criteria for the Grand Prize, village awards, special prizes and gold, silver, bronze medals, supported with case study.https://static.igem.org/peertube/streaming-playlists/hls/1d20e45b-78bb-4f92-8a97-eab949e8e797/bcaa7eed-920b-4197-9986-189c7e6b1612-master.m3u8https://video.igem.org/videos/embed/4AC1cja8rKa7KuupJb2sGp358012025-09-08T16:16:44.237ZYES2025 TeamsNOhttps://video.igem.org/w/rYYH2PEu4hXSnmvi5xLkzShttps://video.igem.org/lazy-static/thumbnails/7726f887-57db-4b38-8863-e8571410dec9.jpgAFCM-Egypt: Silence the Signal: TSLP-Targeting siRNA for Asthma Relief (2025) - Project Promotion...**Title:** Silence the Signal: TSLP-Targeting siRNA for Asthma Relief **Description:** This video introduces our innovative therapeutic strategy: a next-generation asthma therapy using safe, probiotic Lactobacillus bacteria as microscopic, living factories. We've engineered these beneficial microbes to produce and deliver co-BERA, a custom-designed molecule that precisely targets and "switches off" TSLP, a key trigger in the asthma inflammation cascade. By tackling the root cause at the molecular level, our approach offers a precise, localized, and non-invasive alternative to traditional treatments. Unlike current options, which often cause serious side effects, especially in cases of severe or steroid-resistant asthma, our solution is designed for long-term relief with minimal impact on the rest of the body. [Wiki](https://2025.igem.wiki/afcm-egypt) | [Official Page](https://teams.igem.org/5545)https://static.igem.org/peertube/streaming-playlists/hls/d2691098-0da5-4cb0-b840-0c0642f8bc68/441f872e-91b6-441f-81fd-3735980ed0a5-master.m3u8https://video.igem.org/videos/embed/rYYH2PEu4hXSnmvi5xLkzS1040572025-09-08T17:46:51.879ZYES2025 Project PromotionsNOhttps://video.igem.org/w/x1V6B1fiX5WxhyW6tJKF6ahttps://video.igem.org/lazy-static/thumbnails/02cee068-a938-4e0d-903b-cc56fb8eced7.jpgMITWPU-BHARAT: Micrograms Matter: Precision Biosensing Against Opioid Crisis (2025) - Project Pro...**Title:** Micrograms Matter: Precision Biosensing Against Opioid Crisis **Description:** Every second counts when it comes to synthetic opioids. Potent and deadly even in micrograms, these drugs are fueling an unprecedented public health crisis. Our breakthrough detection technology offers rapid, reliable results—on-site and in real time—empowering healthcare providers, law enforcement, and communities to act before it’s too late. Combining cutting-edge apta-sensor science with user-friendly design, we deliver a simple test that can save countless lives. Because detecting danger early isn’t just science—it’s survival. [Wiki](https://2025.igem.wiki/mitwpu-bharat) | [Official Page](https://teams.igem.org/5882)https://static.igem.org/peertube/streaming-playlists/hls/fb2c0539-9234-4cd5-a2ce-2da001f3b51f/281ee7f6-7467-4752-b5a9-4f960b074488-master.m3u8https://video.igem.org/videos/embed/x1V6B1fiX5WxhyW6tJKF6a1230442025-09-08T19:16:06.434ZYES2025 Project PromotionsNOhttps://video.igem.org/w/bUQAZXcvimj5ssrBvz6m4Whttps://video.igem.org/lazy-static/thumbnails/dea23233-5273-4272-bc74-f58aab10eb75.jpgABOA: Verified - The Bloodstain Age Decoder (2025) - Project Promotion [English]**Title:** Verified - The Bloodstain Age Decoder **Description:** ABOA 2025 team's promotion video introducing our project - Verified, a new-age tool for determining bloodstain age on site, expediting the process of crime scene investigation. [Wiki](https://2025.igem.wiki/aboa) | [Official Page](https://teams.igem.org/5794)https://static.igem.org/peertube/streaming-playlists/hls/585c03fc-69f8-4d61-934c-23ff833debec/82eab415-8f0a-431f-85c4-cdeda4b6b211-master.m3u8https://video.igem.org/videos/embed/bUQAZXcvimj5ssrBvz6m4W1205602025-09-08T20:57:27.295ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6H3w7cVqVXHadwNyNBBeUyhttps://video.igem.org/lazy-static/thumbnails/fbad6650-79be-4ee4-aea9-e41267d39986.jpgDelNorte-SD: Biosensor System for Treating Acne (2025) - Project Promotion [English]**Title:** Biosensor System for Treating Acne **Description:** Our 2025 project focuses on detecting inflammatory signals that are present in acne inflammation and producing an anti-inflammatory molecule to help decrease the severity of acne. [Wiki](https://2025.igem.wiki/delnorte-sd) | [Official Page](https://teams.igem.org/6013)https://static.igem.org/peertube/streaming-playlists/hls/2e38bd85-1474-4d89-95be-4f8c46d67324/e1f7472e-bda8-4687-85bc-0bfdf1d7886c-master.m3u8https://video.igem.org/videos/embed/6H3w7cVqVXHadwNyNBBeUy1225422025-09-08T21:29:59.352ZYES2025 Project PromotionsNOhttps://video.igem.org/w/9MuhUGkg2CQE2Yu92ox2YMhttps://video.igem.org/lazy-static/thumbnails/5dab427b-3fa1-4f80-ace2-1e6259ba025d.jpgNTU-Singapore: Engineering de novo Cas13 Computationally and Testing Functionality (2025) - Proje...**Title:** Engineering de novo Cas13 Computationally and Testing Functionality **Description:** Our project is on engineering de novo Cas13 in a computational environment and then testing these sequenced in the wet lab environment. This project video basically explains the basic scientific theory of what it is that we are trying to achieve -- such that the layman can understand. [Wiki](https://2025.igem.wiki/ntu-singapore) | [Official Page](https://teams.igem.org/5906)https://static.igem.org/peertube/streaming-playlists/hls/472303a2-c8c5-4213-8c32-7cbe7ea0fbd9/b1d11daf-baf9-432f-8e6b-b6fb0374f063-master.m3u8https://video.igem.org/videos/embed/9MuhUGkg2CQE2Yu92ox2YM1220272025-09-09T02:35:24.952ZYES2025 Project PromotionsNOhttps://video.igem.org/w/2GAuHfZVFibeZsvz3XBrGqhttps://video.igem.org/lazy-static/thumbnails/f9485896-987a-4dae-ba3b-b81c2f374993.jpgMammothEdu-South: From Nature, For Nurture (2025) [Chinese]MammothEdu-South: From Nature, For Nurture (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/0dc425d4-7b20-4ad6-bad8-23799846f594/c3ab1366-249b-45cb-8a80-73889276c624-master.m3u8https://video.igem.org/videos/embed/2GAuHfZVFibeZsvz3XBrGq641052025-09-09T10:54:37.357ZYES2025 TeamsNOhttps://video.igem.org/w/6nCNvnvMSbA4hm39GaaBdMhttps://video.igem.org/lazy-static/thumbnails/431a353d-eb8f-4167-8d7b-a80d26d5e9cf.jpgMammothEdu-South: Fight Against Marine Debris (2025) [English]MammothEdu-South: Fight Against Marine Debris (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/2b82fe0e-5598-4f29-9737-4adf8c9ca7c9/8accf2ba-11a6-4916-a2f1-3fce65593c3b-master.m3u8https://video.igem.org/videos/embed/6nCNvnvMSbA4hm39GaaBdM217072025-09-09T11:51:28.468ZYES2025 TeamsNOhttps://video.igem.org/w/rPywuUcKxYMpqJnVf7RM71https://video.igem.org/lazy-static/thumbnails/717e058d-f269-4916-8f87-2a440e4d1638.jpgNIS-Kazakhstan: HEK-293T-based biosensor for hydroquinone detection and toxicity... (2025) - Proj...**Title:** HEK-293T-based biosensor for hydroquinone detection and toxicity assessment **Description:** Hydroquinone, a toxic chemical found in counterfeit and over-the-counter skin-lightening creams, is linked to DNA damage, ochronosis, and cancer — yet these products still circulate, costing the cosmetics industry $5.5 billion annually. Our iGEM team is creating a fast, portable, and animal-free biosensor using HEK-293T cells with a GFP reporter to spot hydroquinone instantly. When the sensor detects hydroquinone-induced stress, the cells glow green, making detection simple, accurate, and ethical. [Official Page](https://teams.igem.org/6025)https://static.igem.org/peertube/streaming-playlists/hls/d11877ec-15a5-42e1-9f1d-8d2d746ed538/d4a678e9-031a-49d0-88dc-4bddfa65ae1a-master.m3u8https://video.igem.org/videos/embed/rPywuUcKxYMpqJnVf7RM711120352025-09-09T14:51:37.554ZYES2025 Project PromotionsNOhttps://video.igem.org/w/5XmpMTibRvSbrqgdHA8Fyfhttps://video.igem.org/lazy-static/thumbnails/9682c303-c2da-4268-b2ff-b02042507b17.jpgDKU: DopaMine (2025) - Project Promotion [English]**Title:** DopaMine **Description:** Parkinson’s Disease (PD) is a neurodegenerative disorder caused by the progressive loss of dopaminergic neurons, leading to motor impairments such as tremors and rigidity. Current treatments rely on L-DOPA supplementation, but long-term use results in decreased efficacy and severe side effects. To address these limitations, we propose DopaMine: engineering Saccharomyces cerevisiae (S. cerevisiae) to biosynthesize and regulate L-DOPA production using the yeast codon-optimized CYP76AD6 gene from Beta vulgaris partnered with the AR2 gene from Arabidopsis thaliana. By integrating metabolic engineering and synthetic biology, our system aims to improve L-DOPA bioavailability while reducing treatment-related complications. The system incorporates sophisticated feedback mechanisms to maintain optimal L-DOPA levels, offering a potentially groundbreaking approach to PD therapy. [Wiki](https://2025.igem.wiki/dku) | [Official Page](https://teams.igem.org/5652)https://static.igem.org/peertube/streaming-playlists/hls/281f0a4b-b02e-4838-a140-d6161180e422/aa0105f7-b338-4b34-a382-5478c2ca695d-master.m3u8https://video.igem.org/videos/embed/5XmpMTibRvSbrqgdHA8Fyf1020502025-09-10T01:13:11.708ZYES2025 Project PromotionsNOhttps://video.igem.org/w/rVqKgJsYV81NqEiqrghHtXhttps://video.igem.org/lazy-static/thumbnails/4c002713-c953-435d-b778-8bd424413673.jpgHWFLA-Beijing: Bioinformatics-Driven Optimization of Plastic-Degrading Enzyme Ac... (2025) - Proj...**Title:** Bioinformatics-Driven Optimization of Plastic-Degrading Enzyme Activity **Description:** Plastic pollution has become a global environmental challenge, yet existing plastic degradation technologies suffer from low efficiency and are difficult to scale up. To address this issue, this project aims to screen and engineer high-efficiency plastic-degrading enzymes from microbial sources, construct optimized enzyme genes using synthetic biology approaches, and validate their practical effectiveness in plastic degradation. Through large-scale screening of microbial plastic-degrading enzymes, combined with bioinformatics and gene optimization strategies, this research seeks to enhance degradation efficiency and provide novel approaches for the bioremediation of plastic pollution. [Wiki](https://2025.igem.wiki/hwfla-beijing) | [Official Page](https://teams.igem.org/5748)https://static.igem.org/peertube/streaming-playlists/hls/d1ea22f8-c706-4629-b4ae-cf568b106aa9/c6c4f0a8-7772-40bc-a0e6-1bdd7e044fa9-master.m3u8https://video.igem.org/videos/embed/rVqKgJsYV81NqEiqrghHtX1190462025-09-10T05:20:28.757ZYES2025 Project PromotionsNOhttps://video.igem.org/w/d8AcQrZ6k38JA79fQmEGWghttps://video.igem.org/lazy-static/thumbnails/9ac1a111-1de8-4c7c-a21d-0777babc18e5.jpgSMS-Shenzhen: Weaving the Future of Sustainable Food Preservation with Synthetic... (2025) - Proj...**Title:** Weaving the Future of Sustainable Food Preservation with Synthetic biology **Description:** Ever frustrated by food spoiling too quickly, even in the fridge? Or concerned about plastic pollution from disposable wraps? Ever frustrated by food spoiling too quickly, even in the fridge? Or concerned about plastic pollution from disposable wraps? Traditional plastic cling film creates mountains of non-degradable waste each year while failing to protect your food from bacterial growth. As a solution to this problem, SMS-iGEM presents a biodegradable, antibacterial cling film. Guided by the ingenious Granny Bacillus Subtilis, we engineered the bacterium Bacillus subtilis to produce ε-poly-L-lysine. Like skilled weavers, we combine ε-poly-L-lysine with chitosan and sodium alginate to construct a multi-layered, high-performance new cling film. This novel material not only significantly extends food freshness, but also returns harmlessly to the Earth after use. Join SMS-iGEM as we weave a greener, fresher future for food preservation! [Wiki](https://2025.igem.wiki/sms-shenzhen) | [Official Page](https://teams.igem.org/5606)https://static.igem.org/peertube/streaming-playlists/hls/623cf305-ea09-431d-8a53-d41b2cbcf49b/fd65f5f3-43ad-4782-b1e3-e3d8297b02d4-master.m3u8https://video.igem.org/videos/embed/d8AcQrZ6k38JA79fQmEGWg1190812025-09-10T06:51:32.155ZYES2025 Project PromotionsNOhttps://video.igem.org/w/6jorr4DMpw984ho5RZywtLhttps://video.igem.org/lazy-static/thumbnails/ec1a8256-e5e8-4358-9c51-222517badae3.jpgJapan scinet: Video used for events targeting university students (2025) [Japanese]## Escape Game: *Escape ~From the Virus Outbreak Site~* We hosted an educational escape game titled **"Escape ~From the Virus Outbreak Site~"** at the **Gifu University Spring Festival**. The Spring Festival attracts around **1,000 university students** over two days. To improve the **turnover rate** of the event and provide more students with the opportunity to learn, we required **all participants to watch this video** before joining the game. https://static.igem.org/peertube/streaming-playlists/hls/2b0ee8cc-4fae-481e-9a4d-30d5627a1bb2/d0afe643-b534-4316-82b7-12dd42539cab-master.m3u8https://video.igem.org/videos/embed/6jorr4DMpw984ho5RZywtL101032025-09-10T07:36:53.885ZYES2025 TeamsNOhttps://video.igem.org/w/7UFn447a1tRNXN2mhk5q6Ghttps://video.igem.org/lazy-static/thumbnails/9238308c-7e4c-4893-9b0d-fec269517e9e.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Basic) - Ep.5 Secret Instruction of Life (2025) ...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Basic Edition - Episode 5: Secret Instruction of Life In this episode, we introduce the concepts of modeling, parts and tools in the iGEM competition and use situational simulations and guided activities to enhance a sense of responsibility among children.https://static.igem.org/peertube/streaming-playlists/hls/37f1c42b-fd2d-4665-919e-b131448132fa/3867d393-cdb5-4203-a5f2-f4f50e80934a-master.m3u8https://video.igem.org/videos/embed/7UFn447a1tRNXN2mhk5q6G182002025-09-10T17:00:43.686ZYES2025 TeamsNOhttps://video.igem.org/w/kyRHQmXVQ1MZ95Lyuyx8hWhttps://video.igem.org/lazy-static/thumbnails/8f8afd5a-814a-47d8-a968-d558bb54b7f7.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Basic) - Ep.3 Building with Life Blocks (2025) [...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Basic Edition - Episode 3: Building with Life Blocks In this episode, we use games with things that children are familiar with to introduce the basic concepts of synthetic biology, enhancing their understanding of synthetic biology and further sparking their enthusiasm for exploring iGEM.https://static.igem.org/peertube/streaming-playlists/hls/9e7413b6-7522-4853-a960-a3330ab4e02a/8305af42-cf30-40fb-86b4-b2d9bb808077-master.m3u8https://video.igem.org/videos/embed/kyRHQmXVQ1MZ95Lyuyx8hW177012025-09-10T17:06:37.355ZYES2025 TeamsNOhttps://video.igem.org/w/dd8EeZCu8Ss8YxeHzU1CrFhttps://video.igem.org/lazy-static/thumbnails/6c5bed99-bb91-4539-911f-06c6def0afbd.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Basic) - Ep.6 Safety First, Science Next (2025) ...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Basic Edition - Episode 6: Safety First, Science Next In this episode, we introduce the rules of safety in iGEM, emphasizing that science should be both safe and responsible, thus cultivating a sense of responsibility in children.https://static.igem.org/peertube/streaming-playlists/hls/62df4f34-40b9-4722-a031-2b9c4913f381/a7cf713e-f24c-4fa0-8444-18953a55cafc-master.m3u8https://video.igem.org/videos/embed/dd8EeZCu8Ss8YxeHzU1CrF195012025-09-10T17:12:58.855ZYES2025 TeamsNOhttps://video.igem.org/w/u4tStkyaxp4CscKDHSNCLBhttps://video.igem.org/lazy-static/thumbnails/a3f67cea-a291-4c02-9f4a-ef97393b409f.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Basic) - Ep.2 Little Experiments, Big Magic (202...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Basic Edition - Episode 2: Little Experiments, Big Magic In this episode, we introduce the judging process and criteria of iGEM competition. Through an animation story video that ties together the entire development of iGEM, we guide children to appreciate the charm of iGEM.https://static.igem.org/peertube/streaming-playlists/hls/e33c4a16-a1dd-4d18-9df0-6d05675c4bdb/20ba2c92-939e-44cb-b63f-8e9564978742-master.m3u8https://video.igem.org/videos/embed/u4tStkyaxp4CscKDHSNCLB171012025-09-10T17:18:40.205ZYES2025 TeamsNOhttps://video.igem.org/w/xfmUdcPyqBYLJdNCUgfMoThttps://video.igem.org/lazy-static/thumbnails/df7707d2-35e1-42da-8d0d-32b73ba4afd3.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Basic) - Ep.4 Tiny Builders Inside Cells (2025) ...About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Basic Edition - Episode 4: Tiny Builders Inside Cells In this episode, we use animations to present complex experimental techniques, including gene cloning, bacterial culture, and protein extraction, thereby broadening children's horizons and stimulating their imagination and creativity.https://static.igem.org/peertube/streaming-playlists/hls/fd0c9768-25bd-4760-81a6-19eda6503f23/bdadffbb-6180-4099-b74a-064b6de1db08-master.m3u8https://video.igem.org/videos/embed/xfmUdcPyqBYLJdNCUgfMoT193002025-09-10T17:24:57.763ZYES2025 TeamsNOhttps://video.igem.org/w/xtzJXyyw8BkjtmtgyLgR5Lhttps://video.igem.org/lazy-static/thumbnails/3e7e4883-892c-4209-96ca-1a6a30332ba5.jpgScience Communication from the Judge’s PerspectiveGuest Speakers: Dr. Peter Carr (iGEM Judging Committee) and Dr. Traci Haddock (iGEM Engineering Committee)https://static.igem.org/peertube/streaming-playlists/hls/fee52c75-6c5a-444e-8111-46fa71d4db50/817ece24-6fa3-4e9b-8654-7e88aed5b185-master.m3u8https://video.igem.org/videos/embed/xtzJXyyw8BkjtmtgyLgR5L2187072025-09-10T16:55:08.940ZjudgingscicommYESiGEM FoundationNOhttps://video.igem.org/w/ssSdrgWm8r9sjSjkUJUVJkhttps://video.igem.org/lazy-static/thumbnails/08d9610c-58c5-4038-a857-9373d97abcdf.jpgCJUH-JLU-China: Synthetic Biology in Seven Days (Basic) - Ep.1 iGEM Introduction (2025) [English]About *Synthetic Biology in Seven Days* series: *Synthetic Biology in Seven Days* is a popular science book series focusing on synthetic biology and iGEM. The series is available in both Chinese and English with tiered editions ranging from basic, intermediate to advanced, aiming to break the language barriers and matches needs of different age groups. Online resources including videos and education platform developed by CJUH-JLU-China are also provided. We hope Synthetic Biology in Seven Days series can comprehensively advance the popularization of synthetic biology with the help of multimedia. Basic Edition - Episode 1: iGEM Introduction In this episode, we highlight the fun of iGEM through vivid images, engaging explanations, and likening the project to a scientific game. This helps connect abstract scientific concepts with children's everyday lives, building a basic understanding of iGEM and sparking their interest in participation.https://static.igem.org/peertube/streaming-playlists/hls/d64de38f-8f93-4703-bafd-0e4990728d0b/5d094421-7038-4875-8c64-e37f56e4a88a-master.m3u8https://video.igem.org/videos/embed/ssSdrgWm8r9sjSjkUJUVJk2300252025-09-10T17:32:34.315ZYES2025 TeamsNOhttps://video.igem.org/w/rwa3puEb9MeFinUoA2QQGUhttps://video.igem.org/lazy-static/thumbnails/f2957109-9e2a-4cec-8e81-25d799effd7e.jpgRUM-UPRM: Zooming Into E. coli (2025)00:00 - 00:03 : The video shows an *E. coli* bacteria moving in water 00:03 - 00:06 : The camera then zooms into the bacteria representing a transition betweent the outside and inside of the bacteria.https://static.igem.org/peertube/streaming-playlists/hls/ceaa5a02-8fa3-4b39-85bd-a5dca399c254/8d2c3e30-9d18-4d27-9d8b-feffa3d67037-master.m3u8https://video.igem.org/videos/embed/rwa3puEb9MeFinUoA2QQGU60102025-09-11T00:44:05.065ZYES2025 TeamsNOhttps://video.igem.org/w/hemaSdmiaXUDzJn9dWotaXhttps://video.igem.org/lazy-static/thumbnails/22a99062-a96f-4bab-8f32-6242fcb755b8.jpgRUM-UPRM: RDtoX 2.0 Prototype mechanism (2025)00:00 – 00:02 The camera travels inside a bacteria, revealing plasmids carrying RUM-UPRM’s genetic prototype. 00:02 – 00:08 RNA polymerase transcribes the double-stranded DNA into single-stranded RNA. 00:08 – 00:13 In the presence of RDX, riboswitches are activated, initiating enzyme production. 00:13 – 00:17 The enzymes degrade RDX, converting it into formaldehyde and nitrite. 00:17 – 00:25 Formaldehyde and nitrite activate the kill switch, triggering bacterial lysis.https://static.igem.org/peertube/streaming-playlists/hls/836f515d-a1f1-4608-9806-6428a5cd5fdd/b967ac38-7d07-401c-947f-9e48a8bdd65e-master.m3u8https://video.igem.org/videos/embed/hemaSdmiaXUDzJn9dWotaX25002025-09-11T01:41:13.729ZYES2025 TeamsNOhttps://video.igem.org/w/hs7NneVGJwuC8yHXpGMtHUhttps://video.igem.org/lazy-static/thumbnails/74d07d87-f6c6-4683-a0f7-e4ea5af95f0c.jpgGroningen: Detection mechanism animation (2025)Cas13a detection mechanism: When, Cas13a finds its RNA target it cleaves it and its collateral activity is activated. Any surround RNA will be cleaved indiscriminately, including the fluorescent RNA reporter. Wiki: https://2025.igem.wiki/groningen/https://static.igem.org/peertube/streaming-playlists/hls/8537bf32-d9d5-4912-b702-d4cdfd864d72/25088f7e-ed19-48ef-a0ee-d2e4db21ba16-master.m3u8https://video.igem.org/videos/embed/hs7NneVGJwuC8yHXpGMtHU25082025-09-11T16:54:56.247ZYES2025 TeamsNOhttps://video.igem.org/w/waLMpPhRqHnsG2hibXey16https://video.igem.org/lazy-static/thumbnails/65f5bd4b-f5c9-415c-894d-2a507fa85aa9.jpgWageningenUR: bcoated-reveal-background (2025)Another moving background that will used for the homepage https://2025.igem.wiki/wageningenur/index.html https://static.igem.org/peertube/streaming-playlists/hls/f44f73c3-3f68-43e9-a9bb-b521fd1f427d/2e609550-afd8-4453-83f2-335ae31be661-master.m3u8https://video.igem.org/videos/embed/waLMpPhRqHnsG2hibXey16804722025-09-11T20:20:04.601ZYES2025 TeamsNOhttps://video.igem.org/w/wXKMq6iZJ2wKLZALH3V7bnhttps://video.igem.org/lazy-static/thumbnails/ec4c6e0b-d4b4-4eb6-bebf-d9bef3f60cb3.jpgKhanLab-BayArea: Dr. Alex Choi Explains CRISPR (2025) [English]Dr. Alex Choi, a postdoctoral scholar at Stanford University's Stanley Qi lab, explains to high school students how CRISPR works. https://2025.igem.wiki/khanlab-bayarea/educationhttps://static.igem.org/peertube/streaming-playlists/hls/fabb0ca5-42e4-4d43-9794-7d9ca0396139/21d05ed9-14d1-4ac9-a774-737e837d0145-master.m3u8https://video.igem.org/videos/embed/wXKMq6iZJ2wKLZALH3V7bn720102025-09-12T01:02:42.941ZYES2025 TeamsNOhttps://video.igem.org/w/sA5ZdFUU7M6GXcmExJ6tP8https://video.igem.org/lazy-static/thumbnails/45d91509-99eb-4eac-ac45-f9f10fce3027.jpgKhanLab-BayArea: Dr. Alex Choi Explains CRISPR Kit Accessibility (2025) [English]Dr. Alex Choi, a postdoctoral scholar at Stanford University's Stanley Qi lab, explains to high school students how CRISPR kit was designed to be accessible. https://2025.igem.wiki/khanlab-bayarea/educationhttps://static.igem.org/peertube/streaming-playlists/hls/d74ff765-dff6-40f3-b6e6-911cc6494bc1/12004952-dedd-4b9a-94c0-8e2a5135edd4-master.m3u8https://video.igem.org/videos/embed/sA5ZdFUU7M6GXcmExJ6tP871032025-09-12T01:47:49.371ZYES2025 TeamsNOhttps://video.igem.org/w/q7ZT5Fv4YzLrTf3mYz3HAFhttps://video.igem.org/lazy-static/thumbnails/b2d5b01b-db63-449a-8275-50fed8447d50.jpgKhanLab-BayArea: Sal Khan on Education in Science (2025) [English]Sal Khan, the founder of Khan Academy and Khan Lab School, explains what he believes is important in science education. https://2025.igem.wiki/khanlab-bayarea/educationhttps://static.igem.org/peertube/streaming-playlists/hls/c35575f1-1149-47b2-8e9c-84b22db7c2ff/5c0bf47c-0c4d-433e-bff0-b4a2c34950cb-master.m3u8https://video.igem.org/videos/embed/q7ZT5Fv4YzLrTf3mYz3HAF1300122025-09-12T02:06:23.753ZYES2025 TeamsNOhttps://video.igem.org/w/3X4sT9LQ14sBDwaHLPKXdrhttps://video.igem.org/lazy-static/thumbnails/92fce3d8-293b-4367-b366-9a6c5cb8403e.jpgABOA: VeriFied: Enzyme Fragment Complementation (2025)An animation depicting how the enzyme fragment complementation assay behind the VeriFied test works. Animation done by team member Venni Tuulosniemi. Link to ABOA 2025 wiki: https://2025.igem.wiki/aboa/https://static.igem.org/peertube/streaming-playlists/hls/17e251b1-9935-4247-b10e-bce764552275/525465bb-9af1-41f5-ab9c-7636812ded4c-master.m3u8https://video.igem.org/videos/embed/3X4sT9LQ14sBDwaHLPKXdr35212025-09-15T09:03:56.393ZYES2025 TeamsNOhttps://video.igem.org/w/7TjrhVhhfQN2y3qHea4MUkhttps://video.igem.org/lazy-static/thumbnails/84d9c1e6-00b0-41a4-8cd8-18b711042864.jpgABOA: Nitrogenation of Aged Bloodstain Samples (2025)A sped-up version depicting ABOA 2025 team members nitrogenating aged bloodstain samples. Link to ABOA 2025 wiki: https://2025.igem.wiki/aboa/https://static.igem.org/peertube/streaming-playlists/hls/37c12038-39af-4bbb-b665-810dfcc34a97/e5b1a4a3-d4a6-45b9-9d12-af65f986f016-master.m3u8https://video.igem.org/videos/embed/7TjrhVhhfQN2y3qHea4MUk7092025-09-15T11:29:28.012ZYES2025 TeamsNOhttps://video.igem.org/w/h7P494sQvNBcZLMc1yKh6xhttps://video.igem.org/lazy-static/thumbnails/a7727994-f052-45bf-8e60-189f8deef5f2.jpgVIT-Vellore: Ne regrette rien (2025) [French]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/8285ade7-5d7f-4af8-83b0-66424f357179/f5aa1e46-0558-45f0-bbb5-bdc01a311b98-master.m3u8https://video.igem.org/videos/embed/h7P494sQvNBcZLMc1yKh6x26002025-09-15T09:04:16.474ZYES2025 TeamsNOhttps://video.igem.org/w/1gBHr5UiCyRT5E7wzGL1XZhttps://video.igem.org/lazy-static/thumbnails/1dc62ef9-a7e2-41fc-8b3a-c648b2488dc1.jpgVIT-Vellore: Bacterial Army (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/022e2a92-c8a1-4f29-9e6e-4a5c9a455c2f/ce158374-ec54-4deb-9a35-78a86665e643-master.m3u8https://video.igem.org/videos/embed/1gBHr5UiCyRT5E7wzGL1XZ10002025-09-15T11:29:41.558ZYES2025 TeamsNOhttps://video.igem.org/w/aBPMJH9XrXLFtMBxz1cYp4https://video.igem.org/lazy-static/thumbnails/ac4b2cdd-fcd1-4918-b432-5c99af144735.jpgVIT-Vellore: Time a pipette takes (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/4de2bb0a-e969-45b7-b0ab-0d3fa00956b1/58b2a8dc-1b0f-4b16-bcbc-ebb266dc6afe-master.m3u8https://video.igem.org/videos/embed/aBPMJH9XrXLFtMBxz1cYp421012025-09-15T12:04:17.263ZYES2025 TeamsNOhttps://video.igem.org/w/wRQaM3tAaYRvEVJLgwYHvghttps://video.igem.org/lazy-static/thumbnails/aabbd722-07c7-4d7e-9b75-c8bb98b08deb.jpgVIT-Vellore: Sponsor (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/f9e74a1a-1977-4859-902a-dfb6323b9f65/fc103c32-3c0b-413c-977c-ea80227f4632-master.m3u8https://video.igem.org/videos/embed/wRQaM3tAaYRvEVJLgwYHvg320122025-09-15T12:04:49.065ZYES2025 TeamsNOhttps://video.igem.org/w/av4UzMR62tuSYu4rAdMCF3https://video.igem.org/lazy-static/thumbnails/bbe99e9c-eed6-4a68-b2a6-f8524f32a415.jpgVIT-Vellore: Pour 50 ml Blindfolded (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/4cf1398c-32a9-4d22-8bb6-bbe5353496b0/f5287770-9c97-441b-b221-b14fc9273162-master.m3u8https://video.igem.org/videos/embed/av4UzMR62tuSYu4rAdMCF340022025-09-15T12:05:35.975ZYES2025 TeamsNOhttps://video.igem.org/w/8kMvrmDQHkMTSm8DSF7k9uhttps://video.igem.org/lazy-static/thumbnails/c83c2ed7-aee1-44c1-b875-3df2e7dc0c4e.jpgVIT-Vellore: Oh Oh (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/3b7325b3-3f5c-436f-8d1f-3e0519094bf8/47e62257-d03f-4e5d-9f36-8f3df87a71f9-master.m3u8https://video.igem.org/videos/embed/8kMvrmDQHkMTSm8DSF7k9u18032025-09-15T12:09:46.529ZYES2025 TeamsNOhttps://video.igem.org/w/12iRekC11eAh3uvf6RpWPZhttps://video.igem.org/lazy-static/thumbnails/6e552f03-fc2d-4653-bf38-4cd3efd2d8b8.jpgHK-HCY-PCMS: Psychological War of Glaucoma - Mini-film #1 (2025) [Chinese]The Glaucoma Minifilm #1 aims to spread awareness about glaucoma among the younger generations by mentioning their mental hardships and difficulties in daily lives. The plot describes a young painter, losing his vision due to glaucoma, and the surrounding support enables him to get his life back on track and embrace what he has left. The minifilm guides us through the process of dealing with glaucoma, which fosters a sense of awareness towards this difficult disease, as well as nourishing social inclusivity ,as we should all support the visually impaired individuals and provide kindness and care for them. CREDIT Alvin Chai, Ankie Kwok, Darren Hung, Francis Lee, Kaylie Laohttps://static.igem.org/peertube/streaming-playlists/hls/002ebe54-a830-4a30-bb5c-2eca23f4ce3f/341feb6f-aa6a-4677-a9d5-5a1a8ccc1e63-master.m3u8https://video.igem.org/videos/embed/12iRekC11eAh3uvf6RpWPZ2990122025-09-15T09:23:39.752ZcommunitypatientspsychologicalmentalglaucomaYES2025 TeamsNOhttps://video.igem.org/w/ffaAB4WJ2XCPmbcezcQ8pNhttps://video.igem.org/lazy-static/thumbnails/ddba66a5-2ccb-4537-97e0-9bf34d03027a.jpgHK-HCY-PCMS: Learn More about Glaucoma - Mini-film #2 (2025) [Chinese]The Glaucoma Minifilm #2 targets high school students, aiming to spread scientific knowledge about the formation of glaucoma, as well as current treatment types. The plot takes place in a classroom, where 3 students have fun engagements with the teacher. They learn about Intraocular pressure, insufficient drainage of the trabecular meshwork, and how it affects vision with damage to the retinal ganglion cells. The video ends with an introduction to the treatments, as well as a reminder to perform preventive measures such as regular eye checkups. CREDIT Ankie Kwok, Sophie Ho, Kaylie Lao, Cedric Wong, Rachel Huihttps://static.igem.org/peertube/streaming-playlists/hls/735a44a5-becd-4b1c-ab95-5d2d0c0504f0/6181d2b5-39fc-4548-add3-9ca81e9f9a73-master.m3u8https://video.igem.org/videos/embed/ffaAB4WJ2XCPmbcezcQ8pN2250142025-09-15T11:42:00.366ZsynbioclassroomstudentseducationglaucomaYES2025 TeamsNOhttps://video.igem.org/w/53Ug4SezHtpSxuSgCrN42phttps://video.igem.org/lazy-static/thumbnails/a840a2bd-f588-47b9-8ad8-48200b47dfc7.jpgVIT-Vellore: SynBio AudioBook (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/20cc3f97-a236-4ff6-8006-8f9caeee28bd/7e0f34b9-187a-4f04-99ae-d7e2e8a2d813-master.m3u8https://video.igem.org/videos/embed/53Ug4SezHtpSxuSgCrN42p658012025-09-15T12:13:25.760ZYES2025 TeamsNOhttps://video.igem.org/w/s8X3uk7gFuYBtRFoWjFBTChttps://video.igem.org/lazy-static/thumbnails/625af128-329f-43e3-a821-a5781daad329.jpgVIT-Vellore: Safety and Security AudioBook (2025) [English]https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/d3a9bba2-4260-4ee8-b4c5-37bd890b6c96/0b990765-d018-4208-80cf-303cbdb6abcc-master.m3u8https://video.igem.org/videos/embed/s8X3uk7gFuYBtRFoWjFBTC706012025-09-15T12:17:20.255ZYES2025 TeamsNOhttps://video.igem.org/w/pHHYYoNq3qVamzsCQaqp2hhttps://video.igem.org/lazy-static/thumbnails/5358d5b9-1515-4e47-9b23-79e0f6567356.jpgRochester: Rover (2025)Animation of a mars rover https://static.igem.org/peertube/streaming-playlists/hls/c0158e66-6073-4d3c-9434-8fa170bb8cd6/b129a669-99ca-4c7b-a008-5bac2a74b5be-master.m3u8https://video.igem.org/videos/embed/pHHYYoNq3qVamzsCQaqp2h30022025-09-15T09:27:28.682ZYES2025 TeamsNOhttps://video.igem.org/w/k5NSfhyDi9TzfNP12LNXpFhttps://video.igem.org/lazy-static/thumbnails/ca149603-427e-45bb-aba7-906598d62af7.jpgMcMasterU: ManimVis (2025)A figurative animation of Linear Programming (LP)https://static.igem.org/peertube/streaming-playlists/hls/9a897df4-8feb-4c0b-bb46-52eca5542329/09e628e2-c351-4622-8367-a444042cc06f-master.m3u8https://video.igem.org/videos/embed/k5NSfhyDi9TzfNP12LNXpF50662025-09-15T09:46:41.305ZYES2025 TeamsNOhttps://video.igem.org/w/f4JgXRL8GudFtqbtunm1BThttps://video.igem.org/lazy-static/thumbnails/a67c1ed2-cbfa-487e-9ecd-81c5dd3a3c58.jpgUAlberta: Wiki Landing (2025) [English]This video is an attention-grabbing landing hero video for wiki page. https://2025.igem.wiki/ualberta/https://static.igem.org/peertube/streaming-playlists/hls/71e539bf-d0dd-423d-b067-2cd05bcba6d1/e50cb2d9-26e2-4188-a471-28b20f7a48f3-master.m3u8https://video.igem.org/videos/embed/f4JgXRL8GudFtqbtunm1BT60162025-09-15T12:03:12.117Zwikilanding videoYES2025 TeamsNOhttps://video.igem.org/w/3JZGvTyBrWw9GFYsBmTigShttps://video.igem.org/lazy-static/thumbnails/0f948d56-dcda-4839-96a6-4a983f30cce0.jpgWageningenUR: BCoated Logo Animated (2025)Our Animated Logohttps://static.igem.org/peertube/streaming-playlists/hls/163312da-a495-4a92-bc90-1119c53ee894/924a1955-5330-4092-800d-34c2aa9f4e33-master.m3u8https://video.igem.org/videos/embed/3JZGvTyBrWw9GFYsBmTigS5062025-09-15T12:03:36.385ZYES2025 TeamsNOhttps://video.igem.org/w/wnAAjLnQPJYmF384yfE5J7https://video.igem.org/lazy-static/thumbnails/c68758e9-7795-41ec-a857-650736cf6890.jpgBarcelona-UB: Creation of Riboswitches (2025)Creation of Riboswitcheshttps://static.igem.org/peertube/streaming-playlists/hls/f5f618cf-66a7-4edc-82a2-8a8cd63f8f2a/2b2ccefe-db33-4b68-b9be-019699f48322-master.m3u8https://video.igem.org/videos/embed/wnAAjLnQPJYmF384yfE5J7160372025-09-15T11:25:53.017ZYES2025 TeamsNOhttps://video.igem.org/w/p48BH5uKQAHwLpVJusJndBhttps://video.igem.org/lazy-static/thumbnails/36091388-ad24-46a2-bd4f-022c5f134367.jpgBarcelona-UB: Switch On/Off (2025)SWITCH activating and deactivating with ligandhttps://static.igem.org/peertube/streaming-playlists/hls/bab21d22-6bf5-4474-93a7-4b5fc0da147f/0d6c886f-c129-4513-bf66-0eb2e6604a40-master.m3u8https://video.igem.org/videos/embed/p48BH5uKQAHwLpVJusJndB2032025-09-15T12:03:43.966ZYES2025 TeamsNOhttps://video.igem.org/w/e6s4eeiMK2wzRgfZbtgKaLhttps://video.igem.org/lazy-static/thumbnails/9ee40e6f-81bc-4a98-a586-a97459ceb82c.jpgTUDarmstadt: RPM Printing Animation (2025)A short animation how easily printable the rpm is.https://static.igem.org/peertube/streaming-playlists/hls/6a09942c-29dc-4f18-adee-936255ee5cca/fb9e16ec-0ab6-436d-a2f7-295fba7f80ed-master.m3u8https://video.igem.org/videos/embed/e6s4eeiMK2wzRgfZbtgKaL80432025-09-16T07:03:51.418ZspacemicrogravityRPMYES2025 TeamsNOhttps://video.igem.org/w/evpVmmqRZxnGYuMoD6Bnf3https://video.igem.org/lazy-static/thumbnails/ba4f4364-10f1-4d51-9588-226ba3ea0fe5.jpgMammothEdu-DTD-East: The Master of Synthetic Biology Game (2025) [Chinese]A simple educational game demo of The Master of Synthetic Biology.https://static.igem.org/peertube/streaming-playlists/hls/6d621cef-fd07-4a2f-9a88-4c98637ab20a/62b5266e-6225-4d0c-a2ab-26b6c2b3c2f9-master.m3u8https://video.igem.org/videos/embed/evpVmmqRZxnGYuMoD6Bnf3141082025-09-16T07:04:47.657ZYES2025 TeamsNOhttps://video.igem.org/w/i95Qz7vzXgYzymTNMzBdGyhttps://video.igem.org/lazy-static/thumbnails/203c7a25-07de-4ad6-bdc5-aa682d5c146c.jpgDEPU: About safety (2025) [English]This video, produced by the 2025-DEPU team, covers safety-related topics. We introduce and emphasize precautions for conducting experiments in the laboratory and standard operating procedures for equipment.https://static.igem.org/peertube/streaming-playlists/hls/8acc49de-83d3-4a02-93b2-01c9e1073588/76405989-b3c9-43ca-92eb-ef5834255481-master.m3u8https://video.igem.org/videos/embed/i95Qz7vzXgYzymTNMzBdGy610112025-09-16T07:08:43.184ZYES2025 TeamsNOhttps://video.igem.org/w/85kXA47tPFiC5LmRqskxPjhttps://video.igem.org/lazy-static/thumbnails/168dfa09-33c4-4788-a483-243bc8921a76.jpgSYPHU-CHINA: ASGPR-Galactose (2025)SYPHU-CHINA: ASGPR-Galactose (2025)https://static.igem.org/peertube/streaming-playlists/hls/394b3ed9-1a39-4489-aa28-7bab6de84dec/1ba5f965-5259-49d5-a734-d551eeb8431f-master.m3u8https://video.igem.org/videos/embed/85kXA47tPFiC5LmRqskxPj3002025-09-17T07:48:27.765ZYES2025 TeamsNOhttps://video.igem.org/w/7diVEUJc97eBYVJbZxDjLNhttps://video.igem.org/lazy-static/thumbnails/8719672e-eef7-4c6b-b183-44247d7e2690.jpgSYPHU-CHINA: CD44-ATRA (2025)SYPHU-CHINA: CD44-ATRA (2025)https://static.igem.org/peertube/streaming-playlists/hls/324ecdd9-2e85-4bbb-a77e-fc97ce501486/5ff2a1aa-4fe1-4657-a4ec-6a0d148242e2-master.m3u8https://video.igem.org/videos/embed/7diVEUJc97eBYVJbZxDjLN3042025-09-17T07:48:51.681ZYES2025 TeamsNOhttps://video.igem.org/w/qKmtm4GDmx3wz3MwXXjZsLhttps://video.igem.org/lazy-static/thumbnails/8f24dd22-8299-452d-a64b-9e81498873c9.jpgMBG-DUTh: Chitinator et al Homepage (2025)Some pieces of lab work https://static.igem.org/peertube/streaming-playlists/hls/c868ed0a-f57b-45a6-b46c-54e4c9b6e5b4/e2586827-cde4-445e-812a-69ab7a35a45c-master.m3u8https://video.igem.org/videos/embed/qKmtm4GDmx3wz3MwXXjZsL19042025-09-17T07:18:19.098ZlaboratorylabYES2025 TeamsNOhttps://video.igem.org/w/byXYCqzLyhGQhbczCHrgyXhttps://video.igem.org/lazy-static/thumbnails/624ce0d1-1ed3-462a-a960-4a9810e2d925.jpgPatras-Med: Brain Neurons and Synaptic Connections (2025)https://2025.igem.wiki/patras-med/ Animation of brain neurons and synaptic connections, used for illustration purposes in our project. Video by imotivationita from Pixabayhttps://static.igem.org/peertube/streaming-playlists/hls/5595af13-496f-4e7c-9ae3-a0978a2a284b/42cedd24-229f-4560-99c0-d9bdc5445aee-master.m3u8https://video.igem.org/videos/embed/byXYCqzLyhGQhbczCHrgyX10072025-09-17T07:18:43.530ZYES2025 TeamsNOhttps://video.igem.org/w/wj3XiNzL7nQUirStJ9CrHGhttps://video.igem.org/lazy-static/thumbnails/a21b1592-1fbe-48ef-a4a4-220cfc8d167e.jpgWageningenUR: Seed germination (2025)An animated video of a coated seed germinating, for homepagehttps://static.igem.org/peertube/streaming-playlists/hls/f5775e2c-1e5f-492b-aa3f-15f7290e3d16/99afcfcd-bda4-414a-b6e5-aabd71f21ef6-master.m3u8https://video.igem.org/videos/embed/wj3XiNzL7nQUirStJ9CrHG1502772025-09-17T07:51:32.729ZYES2025 TeamsNOhttps://video.igem.org/w/ooYJ9uXyLt39tWkyg8nrhZhttps://video.igem.org/lazy-static/thumbnails/0d3a5649-8ff9-4745-9ece-2c7acbcc7e57.jpgXJTLU-Science-China: Intro Purple (2025)Cover vedio for Home page of our wiki wiki: https://2025.igem.wiki/xjtlu-science-china/https://static.igem.org/peertube/streaming-playlists/hls/b55e5f5c-bd8b-491d-8bc5-70043eac14f5/5c937cb4-89b1-4fd8-a745-45330d1a5b68-master.m3u8https://video.igem.org/videos/embed/ooYJ9uXyLt39tWkyg8nrhZ1202232025-09-17T12:53:41.440ZYES2025 TeamsNOhttps://video.igem.org/w/sGTJUH1i8bgJac1JH6VKynhttps://video.igem.org/lazy-static/thumbnails/780238f1-d1d0-41a7-b623-ab7e0eaf8961.jpgSYPHU-CHINA: ASGPR-ATRA (2025)SYPHU-CHINA: ASGPR-ATRA (2025)https://static.igem.org/peertube/streaming-playlists/hls/d8433de3-3293-4e1d-b51b-1f394ad3fa19/38d4111c-d4ed-4b08-9bfa-eb7e45ff1a0f-master.m3u8https://video.igem.org/videos/embed/sGTJUH1i8bgJac1JH6VKyn8052025-09-18T07:07:52.851ZYES2025 TeamsNOhttps://video.igem.org/w/3FNq9q6skGXuam1LUFdREdhttps://video.igem.org/lazy-static/thumbnails/0cd81ab1-9f1d-44dc-bdc5-697c6f41bc25.jpgSYPHU-CHINA: ASGPR-Galactose (2025)SYPHU-CHINA: ASGPR-Galactose (2025)https://static.igem.org/peertube/streaming-playlists/hls/15c0e3b0-3d33-487e-8e3f-cac1c896e15c/3916b484-49b8-4c6f-957b-95b8527f3471-master.m3u8https://video.igem.org/videos/embed/3FNq9q6skGXuam1LUFdREd8072025-09-18T07:08:20.430ZYES2025 TeamsNOhttps://video.igem.org/w/me1CJEmmrzuQRw4grtfbRehttps://video.igem.org/lazy-static/thumbnails/3909ea83-c015-4b0b-9b36-b2c3a13a9642.jpgSYPHU-CHINA: CD44-ATRA (2025)SYPHU-CHINA: CD44-ATRA (2025)https://static.igem.org/peertube/streaming-playlists/hls/a3c7d521-425b-468e-a062-555466aaff4f/f675e292-c7b1-43c6-b6f6-beded8776cc1-master.m3u8https://video.igem.org/videos/embed/me1CJEmmrzuQRw4grtfbRe8022025-09-18T07:08:25.766ZYES2025 TeamsNOhttps://video.igem.org/w/iQraGpAQ11qpDNacJ1QVMihttps://video.igem.org/lazy-static/thumbnails/0acee0e1-e1ab-4b66-b922-6c51477d9519.jpgSYPHU-CHINA: CD44-Hyaluronic (2025)SYPHU-CHINA: CD44-Hyaluronic (2025)https://static.igem.org/peertube/streaming-playlists/hls/906e9168-f90f-41d1-8a0b-53a1a4c825b7/795bf3af-bde2-433b-8311-f553645d624f-master.m3u8https://video.igem.org/videos/embed/iQraGpAQ11qpDNacJ1QVMi8032025-09-18T07:08:31.687ZYES2025 TeamsNOhttps://video.igem.org/w/qncHnWwph8HQXAHWob6WwDhttps://video.igem.org/lazy-static/thumbnails/e23ebf65-2992-40d9-ad0a-fb25302361ed.jpgSYPHU-CHINA: EGFR-ATRA (2025)SYPHU-CHINA: EGFR-ATRA (2025)https://static.igem.org/peertube/streaming-playlists/hls/c5512a68-b890-4726-a05f-5a0cc0585db1/46b1395b-5dda-4966-bf1c-197edd76d352-master.m3u8https://video.igem.org/videos/embed/qncHnWwph8HQXAHWob6WwD8062025-09-18T07:08:36.835ZYES2025 TeamsNOhttps://video.igem.org/w/tmn6mrBgCW7YqfjpzUkXA7https://video.igem.org/lazy-static/thumbnails/425403e4-18da-4c9d-831e-28d274eca519.jpgSYPHU-CHINA: GPC3-ATRA (2025)SYPHU-CHINA: GPC3-ATRA (2025)https://static.igem.org/peertube/streaming-playlists/hls/dd7e9e28-38a6-4748-ae87-f974d39b170e/23841684-f9bc-47e8-8162-83832832ba4b-master.m3u8https://video.igem.org/videos/embed/tmn6mrBgCW7YqfjpzUkXA780112025-09-18T07:08:43.322ZYES2025 TeamsNOhttps://video.igem.org/w/voQt65buS81W8vZPsU7RgBhttps://video.igem.org/lazy-static/thumbnails/c780d14a-d7fc-45a4-a5f2-347d3370077d.jpgDTU-Denmark: Biobrick Workshop (2025) [English]This video is a compilation of clips from our Biobrick Workshop, from the 2025 DTU biobuilders team, intended for the wiki page. Wiki link: https://2025.igem.wiki/dtu-denmarkhttps://static.igem.org/peertube/streaming-playlists/hls/ee0940c1-0289-466f-8750-4c798a56d51d/396c7d80-b5df-468f-8051-faf9a5b66d35-master.m3u8https://video.igem.org/videos/embed/voQt65buS81W8vZPsU7RgB300112025-09-18T08:15:09.854ZYES2025 TeamsNOhttps://video.igem.org/w/trPiA3WV9NttrVRTtUWsWEhttps://video.igem.org/lazy-static/thumbnails/5a6976a7-f599-4ad9-b581-f6c7498939ab.jpgDTU-Denmark: BFH meetup (2025) [English]A compilation of clips from the BFH meetup, from the 2025 DTU biobuilders team, intended for the wiki page. Wiki link : https://2025.igem.wiki/dtu-denmarkhttps://static.igem.org/peertube/streaming-playlists/hls/de417d5e-2ca5-462a-9290-d0f5514b19da/f052b210-f8b9-45c3-a34f-71d47de15af9-master.m3u8https://video.igem.org/videos/embed/trPiA3WV9NttrVRTtUWsWE570122025-09-18T09:13:56.816ZYES2025 TeamsNOhttps://video.igem.org/w/61iHecTaBA7GgFxBXpwb9hhttps://video.igem.org/lazy-static/thumbnails/0ce849c1-08ab-4781-8eaa-f09ea0f6096d.jpgNanjing-China: Aerobics I (2025)At The 12th Conference of China iCEMer Community & Synbiopunk 2025 (CCiC), we teamed up with various groups to perform aerobics in the exhibition hall, demonstrating the joy of exercise and the healthy lifestyle concept of cancer prevention through physical activity to all iGEMers attending CCiC.https://static.igem.org/peertube/streaming-playlists/hls/28889ba4-b116-45b5-bbc0-341134edc508/3b2a27f4-276a-4b12-b206-a38251b68a4a-master.m3u8https://video.igem.org/videos/embed/61iHecTaBA7GgFxBXpwb9h250062025-09-18T09:17:06.914ZYES2025 TeamsNOhttps://video.igem.org/w/v52h1cUBqePcgGmf49Awamhttps://video.igem.org/lazy-static/thumbnails/0c4b2ff5-e43c-4ef1-87bf-4622caf6d936.jpgNanjing-China: Aerobics II (2025)At The 12th Conference of China iCEMer Community & Synbiopunk 2025 (CCiC), we teamed up with various groups to perform aerobics in the exhibition hall, demonstrating the joy of exercise and the healthy lifestyle concept of cancer prevention through physical activity to all iGEMers attending CCiC.https://static.igem.org/peertube/streaming-playlists/hls/eb68c854-3aa0-4faa-a729-bdfb98847a86/a500a0e9-e0a9-431c-82a8-df06f5916a3e-master.m3u8https://video.igem.org/videos/embed/v52h1cUBqePcgGmf49Awam16072025-09-18T09:32:58.157ZYES2025 TeamsNOhttps://video.igem.org/w/qYu7B8vr7U2pZcHfhrHnvnhttps://video.igem.org/lazy-static/thumbnails/c93599fb-a584-4502-9988-97e3ebbeb31d.jpgTUDarmstadt: Measuring Acceleration with Phyphox (2025)TUDarmstadt: Measuring Acceleration with Phyphox (2025)https://static.igem.org/peertube/streaming-playlists/hls/ca3e4e04-cbb8-405d-82fe-4ad53db68a93/33cf518c-9cdb-4836-82b4-3313ca30a238-master.m3u8https://video.igem.org/videos/embed/qYu7B8vr7U2pZcHfhrHnvn60142025-09-19T07:06:12.217ZTUDarmstadtMikrogravitySpacePhyphoxRPMYES2025 TeamsNOhttps://video.igem.org/w/is4foq8Y3MAKGtPkgDwssyhttps://video.igem.org/lazy-static/thumbnails/148ad80a-5138-4bd6-adae-52177fb86930.jpgOUC-Haide: Dynamic Simulation Demonstration at 37 degrees Celsius (2025)This video is used to demonstrate the **molecular dynamics simulation** process of six molecular chains of our gel (used in the project) material at 37 ℃https://static.igem.org/peertube/streaming-playlists/hls/8d4eb269-2cc6-467d-b0a8-6168c3fa6f4c/e28c5c8b-564a-4fd0-886c-6ce9b07f2752-master.m3u8https://video.igem.org/videos/embed/is4foq8Y3MAKGtPkgDwssy80102025-09-19T07:05:46.795ZMolecular Dynamics SimulationYES2025 TeamsNOhttps://video.igem.org/w/bVDAF6QBjuFQ3Uk5fT4tAthttps://video.igem.org/lazy-static/thumbnails/0b292d4e-2905-4e11-9eca-ea6e38a658cd.jpgOUC-Haide: Dynamic Simulation Demonstration at 4 degrees Celsius (2025)This video is used to demonstrate the **molecular dynamics simulation** process of six molecular chains of our gel (used in the project) material at 4 ℃https://static.igem.org/peertube/streaming-playlists/hls/5878fa15-dae1-4452-bacd-4b9a740b4283/56d02fa8-9ee8-4154-bf8d-e0736360e93d-master.m3u8https://video.igem.org/videos/embed/bVDAF6QBjuFQ3Uk5fT4tAt6072025-09-19T07:06:55.743Zmolecular dynamics simulationYES2025 TeamsNOhttps://video.igem.org/w/mP16ryuGbhePEMyZXkuudghttps://video.igem.org/lazy-static/thumbnails/954490d8-0a95-4a5c-8062-e930b7c221cf.jpgWarsaw: Watroba (2025)Animation for the home pagehttps://static.igem.org/peertube/streaming-playlists/hls/a886c9c7-6c4a-4a9a-a881-eb0c3c89cde7/7d81d069-3d71-49b3-ae16-0fef29525513-master.m3u8https://video.igem.org/videos/embed/mP16ryuGbhePEMyZXkuudg30162025-09-19T13:13:57.032ZYES2025 TeamsNOhttps://video.igem.org/w/gmVFMFs9MarbEx94BCh1Drhttps://video.igem.org/lazy-static/thumbnails/601ea4fa-86ca-4e54-8378-aefdafeef510.jpgOUC-Haide: Hardware Design and Conceptualization (2025) [Chinese]This video presents a simulation demonstration of our robotic arm, proving the engineering feasibility and safety of the drug dispensing scheme on the robotic arm.https://static.igem.org/peertube/streaming-playlists/hls/7c650a5c-24f0-4b3f-a8e8-12b12cb3b7db/e2b3f7dc-b601-4904-a84b-c0be8d6afa13-master.m3u8https://video.igem.org/videos/embed/gmVFMFs9MarbEx94BCh1Dr165062025-09-22T07:58:53.436ZMechanical arm demonstrationSimulation modelingYES2025 TeamsNOhttps://video.igem.org/w/fzvoNghFwr4YGMB74eHDdyhttps://video.igem.org/lazy-static/thumbnails/e25c98b9-4082-487d-aa9d-5545d9c074e6.jpgTU-Dresden: Description Oligometization (2025)Monomeric unit undergoes oligomerizationhttps://static.igem.org/peertube/streaming-playlists/hls/760d998a-6cfb-4bd1-86de-b91b61015e24/d4f8066b-7d2f-4952-abdc-0423fe9e9dec-master.m3u8https://video.igem.org/videos/embed/fzvoNghFwr4YGMB74eHDdy14002025-09-22T08:32:56.869ZYES2025 TeamsNOhttps://video.igem.org/w/bHAKqhVuhYFJDVb12nHqgVhttps://video.igem.org/lazy-static/thumbnails/bb265019-f348-42ef-8dd7-07fc4edb7bf5.jpgShanghaitech-China: Educational Video (2025) [English]Welcome to Episode 1 of the ShanghaiTech-China team’s educational video series on Rhinosinusitis. In this episode, we explore an important question: How common is Rhinosinusitis?https://static.igem.org/peertube/streaming-playlists/hls/56ca4bb6-a63e-4d35-8b67-347d655d5753/b8716ed7-e33b-4a4f-ab94-fb92d0faf371-master.m3u8https://video.igem.org/videos/embed/bHAKqhVuhYFJDVb12nHqgV107012025-09-22T08:36:49.261ZRhinosinusitisShanghaiTech-Chinaeducational videoYES2025 TeamsNOhttps://video.igem.org/w/icdkEtV1dFMsTTW2vrFKkYhttps://video.igem.org/lazy-static/thumbnails/38bb844f-3f14-4815-97af-633e628e3ea4.jpgHainanU-China: Epilepsy friendly Taijiquan course (2025) [Chinese]HainanU-China: Epilepsy friendly Taijiquan course (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/8b3c2494-11e7-4aa9-877e-025ced7fed9a/8bb33ec9-e0ea-40e7-ac66-85ab45845dd2-master.m3u8https://video.igem.org/videos/embed/icdkEtV1dFMsTTW2vrFKkY2690112025-09-22T17:12:50.204ZYES2025 TeamsNOhttps://video.igem.org/w/4D2czHetdLHxNrfQXYpx8vhttps://video.igem.org/lazy-static/thumbnails/adec1f24-f28a-47e8-a672-ced5288fb061.jpgFSU: Visio Presentation (2025) [English]Presentation of one of our contributions to the iGEM Community wiki: https://2025.igem.wiki/fsu/https://static.igem.org/peertube/streaming-playlists/hls/1d76acbf-7a4a-4ff7-93a1-fc2f07315b87/b1e25e8e-2d2e-4196-9bbd-1bcd21e5374c-master.m3u8https://video.igem.org/videos/embed/4D2czHetdLHxNrfQXYpx8v631082025-09-22T09:01:08.968ZYES2025 TeamsNOhttps://video.igem.org/w/nSd3sDfGfm1YzS1mpxza9Dhttps://video.igem.org/lazy-static/thumbnails/245c1339-ca45-4f39-be11-b6e78f7564a3.jpgOUC-Haide: RAG System display example (2025) [English]This video shows how the **RAG System** works when we give it "Hello, what can you do?" as an input. It is used for showing the Front end and basic function of our RAG Syetem.https://static.igem.org/peertube/streaming-playlists/hls/b1128591-ac4f-4cda-99d2-3d872c1d86b1/46f1d09b-7a3b-464b-912c-73d9dc3a4c02-master.m3u8https://video.igem.org/videos/embed/nSd3sDfGfm1YzS1mpxza9D120132025-09-22T09:11:08.921ZretrievalLLMRAGYES2025 TeamsNOhttps://video.igem.org/w/cqggRoqDwZCkmV4aAAnN8Bhttps://video.igem.org/lazy-static/thumbnails/7ba7d31d-6950-4a46-a2a6-1f4dd732ba24.jpgOUC-Haide: Example of Retrieval Function in RAG System (2025) [English]This video shows how the the retrieval function of **RAG System** works, based on the papers and improved algorithm.https://static.igem.org/peertube/streaming-playlists/hls/5c77c9ca-84a0-4e0a-b828-9b5a3a808f99/999e5456-e599-4493-9c34-6810891db2dc-master.m3u8https://video.igem.org/videos/embed/cqggRoqDwZCkmV4aAAnN8B32042025-09-22T09:14:37.460ZretrievalRAGLLMYES2025 TeamsNOhttps://video.igem.org/w/kYHyCSzSejsnkMbEbBaiLLhttps://video.igem.org/lazy-static/thumbnails/b9ef2bf9-e75f-49e9-8737-438375fb64a5.jpgOUC-Haide: AMP Rerank Agent test example (2025) [English]This video shows how **AMP rerank agent** works given a test input.https://static.igem.org/peertube/streaming-playlists/hls/a1c8e64a-82fd-404c-bc5e-5afec592ebe0/826af53f-9fe0-4edf-9a1b-69faaa870fae-master.m3u8https://video.igem.org/videos/embed/kYHyCSzSejsnkMbEbBaiLL32052025-09-22T09:19:19.054ZLLMRerankAgentYES2025 TeamsNOhttps://video.igem.org/w/ruNtKdT2Eaq8gBEzNrz47Uhttps://video.igem.org/lazy-static/thumbnails/a04abcc5-19b1-4267-8872-48d7e1d217a4.jpgOUC-Haide: Data Analysis Agent test example (2025) [English]This video shows how **Data Analysis Agent** works given an input.https://static.igem.org/peertube/streaming-playlists/hls/ce79ef74-6d2a-4c7e-a2ba-ef3677a0a3b4/742aab48-306d-43bb-bc7d-f92e73720b76-master.m3u8https://video.igem.org/videos/embed/ruNtKdT2Eaq8gBEzNrz47U300102025-09-22T09:21:22.949ZLLMAgentData AnalysisYES2025 TeamsNOhttps://video.igem.org/w/kkWxTifyQ1WS5BF9Bc3tJphttps://video.igem.org/lazy-static/thumbnails/1f5c225a-8986-47d6-b3b2-75b405c1887f.jpgSJTU-BioX-Shanghai: Model (2025)SJTU-BioX-Shanghai: Model (2025)https://static.igem.org/peertube/streaming-playlists/hls/9ca66235-fec6-49dc-97e0-753de78cb3c7/4ca29f1d-b08e-4c18-8db0-d1944df1ad53-master.m3u8https://video.igem.org/videos/embed/kkWxTifyQ1WS5BF9Bc3tJp50262025-09-22T09:01:29.815ZYES2025 TeamsNOhttps://video.igem.org/w/eTPXgnNsMQN9zjc6PiG5Jyhttps://video.igem.org/lazy-static/thumbnails/5ef2a5bc-d151-4d59-adb5-ea6c80001914.jpgToulouse-INSA-UT: Droplets generation - microfluidics (2025)Video for our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/7083496e-72b7-4fba-b8c7-52deb29db9a4/dafb8efe-c7a4-445f-a23d-9b1628cb942b-master.m3u8https://video.igem.org/videos/embed/eTPXgnNsMQN9zjc6PiG5Jy80222025-09-22T09:02:44.487ZYES2025 TeamsNOhttps://video.igem.org/w/qh2oMgxhJ8CrYkx3wVRUNmhttps://video.igem.org/lazy-static/thumbnails/905ec323-de7a-4266-ae87-10603ece907f.jpgToulouse-INSA-UT: Droplets sorting (2025)Video for our wiki page.https://static.igem.org/peertube/streaming-playlists/hls/c4981623-bd74-4628-93e4-4e143d4f1d88/90455929-ed02-41a7-8e2c-b96e071296b1-master.m3u8https://video.igem.org/videos/embed/qh2oMgxhJ8CrYkx3wVRUNm10002025-09-22T09:12:38.887ZYES2025 TeamsNOhttps://video.igem.org/w/gGTgZNhey3R5L3jMwYZvwVhttps://video.igem.org/lazy-static/thumbnails/49f9ed7c-938a-40ce-8e8e-462c673e5220.jpgIISER-Berhampur: Project Presentation to Students on July 05 2025 (2025) [English]This video is the introductory presentation of our project to the students of IISER Berhampur, conducted virtually on July 05, 2025. The presentation was delivered over Zoom by Team iGEM 2025 – IISER Berhampur. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright & Creation Information : The presentation was first designed on Canva using free-to-use design elements, then exported to Microsoft PowerPoint for enhanced animation and presentation control. It incorporates a mix of original work, AI-generated content, open-source elements, and referenced media. All of the textual content (slides 20–54) are written by us, along with graphs (slides 11, 14), protein diagrams (slides 38–39), a prototype image (slide 44), photographs (slides 30–32), and our own team logo (slide 36). Several slides (3, 5–10, 12–13, 17–18, and 34) feature content generated using ChatGPT. Canva free-to-use elements appear as backgrounds and graphics on slides 14, 37, and 40–42. External materials were also incorporated -- An image from the iGEM website (slide 2) and the iGEM Lego brick graphic (slides 40–42), napkin[dot]ai generated infographics (slides 15, 16, 35), UN SDG icons (slides 48–49), and Google Earth Studio video snippets (slides 21–25). A map of India (slides 26–29) was created using an ADMIN 1 generalised shapefile from the Humanitarian Data Exchange portal. Referenced material from research publications was used on slides 19 (image), 33 (table), and 43 (image). Slides 47 and 52–53 feature photographs of people who gave consent for their use. Other external media include an image from Pirates of the Caribbean (slide 20) and our promotional video on slide 4: https://video.igem.org/w/3qLpoHRE7WtY5BZrhQEXRg.https://static.igem.org/peertube/streaming-playlists/hls/7f2e6e37-945d-4d56-afa7-333aafb8e37d/817576b1-0bf8-4940-8e53-0d571bece332-master.m3u8https://video.igem.org/videos/embed/gGTgZNhey3R5L3jMwYZvwV23240332025-09-22T13:56:11.128ZYES2025 TeamsNOhttps://video.igem.org/w/5bZoGqiTJ1T9a917qffq2shttps://video.igem.org/lazy-static/thumbnails/47101d9b-3be5-45e1-86c8-06fb2b380808.jpgMIT-MAHE: Educational Tool - DNA Fingerprinting (2025) [English]An animated video that details the concept of DNA fingerprinting in an engaging manner. The video serves as an educational tool for middle to high school students. https://static.igem.org/peertube/streaming-playlists/hls/21ed5c6a-8f96-40c9-a4bd-95149a133744/6e52357d-4389-4946-97c3-a4c892f83cdc-master.m3u8https://video.igem.org/videos/embed/5bZoGqiTJ1T9a917qffq2s720152025-09-22T13:58:06.291ZYES2025 TeamsNOhttps://video.igem.org/w/qZhWNE7kgR9VpZGizs57vDhttps://video.igem.org/lazy-static/thumbnails/73846b7e-eec9-4676-b06f-a415af8d3cf0.jpgTianjin: KUNPENG (2025)The homepage video of iGem Tianjin aims to promote the team's project. Our link: https://2025.igem.wiki/tianjin/https://static.igem.org/peertube/streaming-playlists/hls/ca5b2a57-838b-4dab-9071-306d315c1caf/b3f4eabc-fe3a-40f3-8053-d1559f0ae65d-master.m3u8https://video.igem.org/videos/embed/qZhWNE7kgR9VpZGizs57vD453012025-09-22T13:58:21.189ZYES2025 TeamsNOhttps://video.igem.org/w/mXivjdwM1A9W1aFj7F6pqahttps://video.igem.org/lazy-static/thumbnails/304661da-c3d8-4387-b603-8c741db8c135.jpgMammothEdu-South: Merge-iGEM (2025)A game for iGEM promotion.https://static.igem.org/peertube/streaming-playlists/hls/a9af77f9-1f9f-4fbd-8e1a-8f6d015840ad/530d5b3f-1270-440e-95de-a7084584cbfd-master.m3u8https://video.igem.org/videos/embed/mXivjdwM1A9W1aFj7F6pqa40512025-09-23T07:16:33.720ZYES2025 TeamsNOhttps://video.igem.org/w/mQ4Cq4HCE5rm9QKTm1hqQ1https://video.igem.org/lazy-static/thumbnails/c1d01ad8-e928-4469-a117-4466ae90ac9d.jpgShanghaitech-China: Rhino in Boat (2025)Shanghaitech-China: Rhino in Boat (2025)https://static.igem.org/peertube/streaming-playlists/hls/a8acb5bb-d7cf-4230-9348-2a1b2ccd9380/320630f5-325d-4387-90db-d07555d042a2-master.m3u8https://video.igem.org/videos/embed/mQ4Cq4HCE5rm9QKTm1hqQ130432025-09-23T07:26:37.282ZYES2025 TeamsNOhttps://video.igem.org/w/rLTQAYhZQWDYXUGukuHa2dhttps://video.igem.org/lazy-static/thumbnails/9516e951-8e47-41c0-b3bd-f9c076bc0da8.jpgHainanU-China: EpilFive teams' joint Aerobics (2025) [Chinese]HainanU-China: EpilFive teams' joint Aerobics (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/d0b9237f-f205-4a84-9be9-13803e0c7492/017c3246-301b-436f-959e-87a767131945-master.m3u8https://video.igem.org/videos/embed/rLTQAYhZQWDYXUGukuHa2d258092025-09-23T07:33:21.040ZYES2025 TeamsNOhttps://video.igem.org/w/qnBLNEUiEfZf9aw3PdLsp8https://video.igem.org/lazy-static/thumbnails/65d43dc2-ee5a-4bef-84bb-bd647296d7dc.jpgYNNU-China: REvoDesign Demo (2025) [English]This study developed an evolution-based enzyme redesign (REvoDesign) workflow to guide the rapid evolution of enzymes and improve the efficiency of plant enzyme engineering for natural product synthesis in microbial hosts. https://2025.igem.wiki/ynnu-china/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/c55ffe1a-8cdd-4544-a251-1b2acab4cf65/42094bb0-5dba-4ee5-802c-6663bfa75732-master.m3u8https://video.igem.org/videos/embed/qnBLNEUiEfZf9aw3PdLsp8965252025-09-23T07:29:58.971ZTool Usage Tutorial VideoNatural products from plantsREvoDesignProtein design tools YES2025 TeamsNOhttps://video.igem.org/w/7sEKFLm5gW2m2XMBH4DeqEhttps://video.igem.org/lazy-static/thumbnails/e77cc70f-0099-4a4f-abd4-43c1169aec2d.jpgSPC: PET Bottle Digestion (2025)This is a short animation about breaking down PET plastics using enzymes. Wiki: https://2025.igem.wiki/spc/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/34500d6f-d9b9-493e-ba3f-9db135f17242/82ea6b74-4f56-4ba7-85c4-b1b59223bbe5-master.m3u8https://video.igem.org/videos/embed/7sEKFLm5gW2m2XMBH4DeqE10002025-09-23T07:33:32.550ZYES2025 TeamsNOhttps://video.igem.org/w/ivwn7CX5XmjccejbuRT2e9https://video.igem.org/lazy-static/thumbnails/4233e3d9-3478-48f5-94b5-f53a785f4d0c.jpgUCS-A: Hardware Test (2025) [English]UCS-A: Hardware Test (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/8dcaa399-2481-422a-9d5d-18b0d5a1c626/03197556-be96-49e8-aa5f-a4211a8a028b-master.m3u8https://video.igem.org/videos/embed/ivwn7CX5XmjccejbuRT2e969032025-09-23T07:31:05.617ZYES2025 TeamsNOhttps://video.igem.org/w/ag2K3Nx5yss2kbgd4ab9AShttps://video.igem.org/lazy-static/thumbnails/8117f3c9-2d3d-4020-b93f-a82322fed279.jpgSPC: PET Breakdown (2025)This is a short animation showing the breaking down of PET plastic using enzyme with curli fibers secreted by the E coli. Wiki: https://2025.igem.wiki/spc/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/4afb7a69-1d1f-47d3-80fd-275ba76ee186/4417fa85-0d7d-43fc-af8f-6d3ba4beca67-master.m3u8https://video.igem.org/videos/embed/ag2K3Nx5yss2kbgd4ab9AS80102025-09-23T07:34:28.764ZYES2025 TeamsNOhttps://video.igem.org/w/fg2E371kio2VjG4xxsPPpChttps://video.igem.org/lazy-static/thumbnails/7a9849ec-ee06-4564-8605-501c4f9e8dad.jpgOUC-Haide: AMPilot display example (2025) [English]This video shows how AMPilot works when we give it "Hello, what can you do?" as an input.https://static.igem.org/peertube/streaming-playlists/hls/73791e43-1b0a-44da-a9fd-1744343da78e/beb985bb-0d8c-4d3c-be71-3924f2e5aff3-master.m3u8https://video.igem.org/videos/embed/fg2E371kio2VjG4xxsPPpC9062025-09-23T07:35:05.984ZAMPilotAgentLLMYES2025 TeamsNOhttps://video.igem.org/w/tBUGbRQUkiHTAYuTc1DbtMhttps://video.igem.org/lazy-static/thumbnails/b9f0efbf-687c-44b1-81d4-e373cb51f8fb.jpgOUC-Haide: Retrieval Agent test 1 example (2025) [English}This videos shows how **Retrieval Agent** works in the test 1 .https://static.igem.org/peertube/streaming-playlists/hls/dfaa3fb8-c01c-445a-8d1b-11a5f3ddb41b/89fb7f8f-86d5-405b-83c8-0de59ace740b-master.m3u8https://video.igem.org/videos/embed/tBUGbRQUkiHTAYuTc1DbtM18022025-09-23T07:36:12.916ZAgentretrievalYES2025 TeamsNOhttps://video.igem.org/w/ev4HxBxRVUFPTBT6wz1NiBhttps://video.igem.org/lazy-static/thumbnails/a04fdbae-01d9-42e6-9d52-f8b9c11c90b7.jpgOUC-Haide: Retrieval Agent test 2 example (2025) [English]This videos shows how **Retrieval Agent** works in the test 2.https://static.igem.org/peertube/streaming-playlists/hls/6d55a983-2587-4a53-9910-5a375b665405/3dc22c3f-da7c-48e3-8ed2-1b9ba0868afa-master.m3u8https://video.igem.org/videos/embed/ev4HxBxRVUFPTBT6wz1NiB23062025-09-23T07:37:36.510Zagentic ragretrievalYES2025 TeamsNOhttps://video.igem.org/w/6xhUMbMve4iNasRGfceJQuhttps://video.igem.org/lazy-static/thumbnails/5b674dce-ac18-4c53-827c-164841d8b61e.jpgSUIS-PINGHE: TSET 1 (2025)SUIS-PINGHE: TSET 1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/2cdc2bdb-7bdc-47c9-a344-5849fbedb5dc/fb6a4645-f638-4850-9c4c-16cb0e8712c6-master.m3u8https://video.igem.org/videos/embed/6xhUMbMve4iNasRGfceJQu200232025-09-23T07:31:23.068ZYES2025 TeamsNOhttps://video.igem.org/w/1TuuWYMzh8FZ5oxYk6fQpChttps://video.igem.org/lazy-static/thumbnails/e8135dc5-e933-41fe-9cbd-b7aea7aa2604.jpgUCS-A: test 2 (2025)UCS-A: test 2 (2025)https://static.igem.org/peertube/streaming-playlists/hls/07307ed6-d5b3-4f30-a557-26b22ca213fa/923a735d-f489-4bf4-b399-5ddfb8b9055f-master.m3u8https://video.igem.org/videos/embed/1TuuWYMzh8FZ5oxYk6fQpC78092025-09-23T09:45:15.425ZYES2025 TeamsNOhttps://video.igem.org/w/9LNtMb52Qc2Jwa6haxHZ8qhttps://video.igem.org/lazy-static/thumbnails/071a1555-67ec-4d29-9171-bfec388b947b.jpgHK-HCY-PCMS: ECM Hunter - An Original Game (2025) [English]This is a short introduction and promotion to the original game by HK-HCY-PCMS, named ECM Hunter. This game includes RPG elements, as well as combat and dialogues with NPCs, exploring our iGEM journey, from outreach, labwork, to our project mechanisms. Find out more with the following link: https://gx.games/games/zed0fw/ecm-hunter-hkhcypcms-igem-2025-/ https://static.igem.org/peertube/streaming-playlists/hls/470a7a94-7852-43cb-b2cb-e55f17ba842a/a0b69cea-2e3f-4079-be1d-62adde3e722a-master.m3u8https://video.igem.org/videos/embed/9LNtMb52Qc2Jwa6haxHZ8q310242025-09-23T10:08:23.654ZecmglaucomaigemgamesynbioYES2025 TeamsNOhttps://video.igem.org/w/f7mAMVs7s6yRPwjb7HKbpNhttps://video.igem.org/lazy-static/thumbnails/16663905-9609-4c42-87fb-bca27a65e455.jpgGCGS: The Adventure of PHA Microbeads (2025) [Chinese]GCGS: The Adventure of PHA Microbeads (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/72431956-4fe3-40b0-9171-5d8f11ccba54/e703e5b1-0986-47f3-8a83-1f0ebc29affb-master.m3u8https://video.igem.org/videos/embed/f7mAMVs7s6yRPwjb7HKbpN97092025-09-24T07:24:32.210ZYES2025 TeamsNOhttps://video.igem.org/w/epGPkJn8DjPuRJuckubwRehttps://video.igem.org/lazy-static/thumbnails/d653ce7e-c4b6-4737-9498-8d1ac836d924.jpgLethbridgeHS: RhizoRentention TFC Pitch (2025) [English]Created for the MindFuel Tech Futures Challenge - March 2025 https://2025.igem.wiki/lethbridgehs/https://static.igem.org/peertube/streaming-playlists/hls/6c96102c-1b0a-48d6-9cc5-cdbd58ed1a4f/8d745b82-7a07-4306-8942-252c498837e5-master.m3u8https://video.igem.org/videos/embed/epGPkJn8DjPuRJuckubwRe393022025-09-24T07:52:33.807ZYES2025 TeamsNOhttps://video.igem.org/w/r1yxY3cBSkHHNqdbcXQwTDhttps://video.igem.org/lazy-static/thumbnails/bdaf3d36-c4fd-4437-afa2-30df04d796c5.jpgFSU: 3rd Annual Biotech Expo (2025) [English]This video is a summary of the exhibitors, participants, and interactive activities at the 2025 3rd Annual Tallahassee Biotechnology Expo hosted by FSU iGEM and the Challenger Learning Center. Video credits go to Aidan Marengo and the FSU CRE. https://static.igem.org/peertube/streaming-playlists/hls/ca8886df-d78f-440e-af1d-4a28ededd63b/98d5d483-99fe-47b2-af5e-7403f806440f-master.m3u8https://video.igem.org/videos/embed/r1yxY3cBSkHHNqdbcXQwTD460112025-09-24T07:57:33.571ZYES2025 TeamsNOhttps://video.igem.org/w/7jKPgLkUyyTUq3JDWDyRWghttps://video.igem.org/lazy-static/thumbnails/77a94ce1-4841-4f51-ae06-4fb06fa84e31.jpgTianjin: home-web (2025)Tianjin: home-web (2025)https://static.igem.org/peertube/streaming-playlists/hls/333538c7-6027-40fb-b21b-85ba781f227f/3f932665-48b8-4370-88e9-08e39a946bce-master.m3u8https://video.igem.org/videos/embed/7jKPgLkUyyTUq3JDWDyRWg408382025-09-24T07:59:57.091ZYES2025 TeamsNOhttps://video.igem.org/w/tfHbUeDV7J1hHuGkH4hGRthttps://video.igem.org/lazy-static/thumbnails/563f53db-c587-431d-96fc-33005af7924c.jpgTianjin: footer (2025)Tianjin: footer (2025)https://static.igem.org/peertube/streaming-playlists/hls/dcb48a21-4bf1-46df-ac32-4f49ed5159e5/4bb1e4b3-aa4e-4d44-9532-52c353013b25-master.m3u8https://video.igem.org/videos/embed/tfHbUeDV7J1hHuGkH4hGRt18022025-09-24T08:00:06.740ZYES2025 TeamsNOhttps://video.igem.org/w/xsjEmmcqCQKfUScx3zLFpchttps://video.igem.org/lazy-static/thumbnails/f18db72e-5e82-4dc1-bc76-53feeb17f323.jpgTianjin: drylab (2025)Tianjin: drylab (2025)https://static.igem.org/peertube/streaming-playlists/hls/feb82309-a41e-45c8-8c16-1c977e5d9e2d/de94f28d-b183-4f7d-b99b-513f16312aca-master.m3u8https://video.igem.org/videos/embed/xsjEmmcqCQKfUScx3zLFpc5018592025-09-24T08:00:22.519ZYES2025 TeamsNOhttps://video.igem.org/w/eqqh3d6Vpv2WKqQDix71rphttps://video.igem.org/lazy-static/thumbnails/14fcd9ad-62f4-4a80-9898-47ec64951b47.jpgOUC-Haide: Mechanical structure explosion diagram of the robotic arm (2025) [Chinese]The mechanical arm structure modeling analysis and explosion diagram video conducted in the SolidWorks softwarehttps://static.igem.org/peertube/streaming-playlists/hls/6caf9d2e-d806-469f-b3f5-c1ceca0a2c81/1116d45e-bb15-4a2f-aefa-60fb1dce93ce-master.m3u8https://video.igem.org/videos/embed/eqqh3d6Vpv2WKqQDix71rp17072025-09-24T10:21:01.858Zmechanical structureYES2025 TeamsNOhttps://video.igem.org/w/atECq5C3ng3QA9d9zC4z54https://video.igem.org/lazy-static/thumbnails/941f9aca-2282-447b-947a-ea47ba4c9630.jpgSCUT-China-L: homevideo (2025)Diagram of Agar Polysaccharide Hydrolysis by Enzymes (https://2025.igem.wiki/scut-china-l/)https://static.igem.org/peertube/streaming-playlists/hls/4cbf228e-7fc0-4078-b579-965a99aaece7/c4bba56f-cfcb-4191-9b5c-e0c1a8f6a631-master.m3u8https://video.igem.org/videos/embed/atECq5C3ng3QA9d9zC4z544062025-09-24T11:54:57.219ZYES2025 TeamsNOhttps://video.igem.org/w/6dtanHpnxoy3U1Rep9ZMJwhttps://video.igem.org/lazy-static/thumbnails/35460b32-100f-4723-a1d0-49728c7d863d.jpgMammothEdu-South: CCiC presentation (2025) [Chinese]MammothEdu-South: CCiC presentation (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/2a3b5b84-4c05-4de7-bc63-9e935fe6697e/69ac6551-6dbf-4716-9886-abdda4e5ba1f-master.m3u8https://video.igem.org/videos/embed/6dtanHpnxoy3U1Rep9ZMJw299032025-09-25T10:07:09.696ZYES2025 TeamsNOhttps://video.igem.org/w/e1gUgBe1Nkuyx91fNWPiamhttps://video.igem.org/lazy-static/thumbnails/441090a5-4a10-4fa1-8a41-0d47aced7a68.jpgSHSID: Hardware video 1 (2025) [English]SHSID: Hardware video 1 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/69509a1f-1b23-4eeb-8ded-622dbeae287a/2d516d75-7e9d-41d6-84e3-894de17d19ad-master.m3u8https://video.igem.org/videos/embed/e1gUgBe1Nkuyx91fNWPiam980232025-09-25T08:46:03.743ZYES2025 TeamsNOhttps://video.igem.org/w/x3CpJ18HuoaYN31Nj8LLeehttps://video.igem.org/lazy-static/thumbnails/ed688ceb-307c-4a09-9d5c-3a11817ff834.jpgSHSID: Hardware 2 (2025) [English]SHSID: Hardware 2 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/fb69394f-4cfd-4a3a-ac6d-3cba07d8ba3f/fbc93863-ec51-4c25-9185-67fcbe13c391-master.m3u8https://video.igem.org/videos/embed/x3CpJ18HuoaYN31Nj8LLee160212025-09-25T09:38:49.545ZYES2025 TeamsNOhttps://video.igem.org/w/mYL9a8gRv3p8MhHPx6m5CJhttps://video.igem.org/lazy-static/thumbnails/510d9049-7657-457e-b819-85d57e325aec.jpgSHSID: Hardware 3 (2025) [English]SHSID: Hardware 3 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/a9e3a080-5178-4027-a97b-bc2b1a9691f2/2fa790d1-a145-4e9d-b2a4-23192b928718-master.m3u8https://video.igem.org/videos/embed/mYL9a8gRv3p8MhHPx6m5CJ7092025-09-25T10:07:14.489ZYES2025 TeamsNOhttps://video.igem.org/w/9QC8QedHbcWvXCTfHHoVD7https://video.igem.org/lazy-static/thumbnails/03b69fc1-1aef-4fd3-8e8b-ec6eb440abeb.jpgSHSID: Hardware 4 (2025) [English]SHSID: Hardware 4 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/47931449-233f-4042-87c5-6a2b3771ab7c/c27e5d7c-9f2b-48c2-a51d-f441230a1568-master.m3u8https://video.igem.org/videos/embed/9QC8QedHbcWvXCTfHHoVD73052025-09-25T10:13:25.812ZYES2025 TeamsNOhttps://video.igem.org/w/vDKimxvfNcpAPDvJmS21QThttps://video.igem.org/lazy-static/thumbnails/90412ce9-f128-439c-bd98-b68b854df384.jpgSHSID: Hardware 5 (2025) [English]SHSID: Hardware 5 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/f01e3986-fe3d-4f63-a38c-02b65ee214db/08e10d78-315f-4c8b-a4ab-0f5c7d9d3493-master.m3u8https://video.igem.org/videos/embed/vDKimxvfNcpAPDvJmS21QT5082025-09-25T10:33:23.610ZYES2025 TeamsNOhttps://video.igem.org/w/kGHkPL67sSY7e5ATtMXRfthttps://video.igem.org/lazy-static/thumbnails/51c5b09a-6603-48db-ade3-983fb822678e.jpgSHSID: Hardware 6 (2025) [English]SHSID: Hardware 6 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/9f8cdcf5-6125-4a94-8592-cfdd119a4b33/b14a0253-5aea-4b6f-80c5-c720d81d1508-master.m3u8https://video.igem.org/videos/embed/kGHkPL67sSY7e5ATtMXRft18072025-09-25T13:05:21.768ZYES2025 TeamsNOhttps://video.igem.org/w/ko879uA3fXgZibaHAoLvAxhttps://video.igem.org/lazy-static/thumbnails/13235c13-53f6-43f9-93a7-f8d0417a0401.jpgSHSID: Hardware 7 (2025) [English]SHSID: Hardware 7 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/9cf4606e-d589-4bdb-8f53-02ff77449127/4c1c1eff-c156-41d2-9a39-6f9f9b391fdc-master.m3u8https://video.igem.org/videos/embed/ko879uA3fXgZibaHAoLvAx11062025-09-25T13:40:22.046ZYES2025 TeamsNOhttps://video.igem.org/w/mksv9a8NTs22oveg2Hccgqhttps://video.igem.org/lazy-static/thumbnails/d2a34634-9267-4942-af51-9ac4e82fc3a9.jpgSHSID: Hardware 8 (2025)SHSID: Hardware 8 (2025)https://static.igem.org/peertube/streaming-playlists/hls/a4ae3cce-bb12-4492-9f13-806d01d72c32/f8e58af5-5621-45e3-9af7-3e6165e7b546-master.m3u8https://video.igem.org/videos/embed/mksv9a8NTs22oveg2Hccgq14052025-09-26T08:17:31.224ZYES2025 TeamsNOhttps://video.igem.org/w/6Ggj6XDuovYeBAcT9qL1V4https://video.igem.org/lazy-static/thumbnails/bcc17419-dd4e-4c95-a19f-13cc8b1150fe.jpgSHSID: Hardware 9 (2025)SHSID: Hardware 9 (2025)https://static.igem.org/peertube/streaming-playlists/hls/2e1ce16a-366b-492b-87fa-ca8f4a3d17a5/fa3655a0-85df-4c04-aaf7-4b206ab3de54-master.m3u8https://video.igem.org/videos/embed/6Ggj6XDuovYeBAcT9qL1V4960102025-09-26T08:18:48.057ZYES2025 TeamsNOhttps://video.igem.org/w/uuHfkctBP3tDE2zNET58wMhttps://video.igem.org/lazy-static/thumbnails/0f862435-37f6-4037-9804-597b212df616.jpgHK-Joint-School: Sample preparation (2025) [English]To guid how to collect samples for pesticide detection via our invented hardware and software. https://2025.igem.wiki/hk-joint-school/experimentshttps://static.igem.org/peertube/streaming-playlists/hls/e6c220a1-331e-4a98-b1a5-15a9b207fe85/93634306-2df8-4adf-8a64-a0fba546ba8c-master.m3u8https://video.igem.org/videos/embed/uuHfkctBP3tDE2zNET58wM600152025-09-25T08:46:38.378ZSynthetic BiologyHigh schoolPesticidesiGEM2025HK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/93UNq7rFRHKJGiBTpQsy2Xhttps://video.igem.org/lazy-static/thumbnails/ad5b16dd-c13d-45d4-b85e-9213de6e704d.jpgHK-Joint-School: SmartBoxFeature (2025) [English]To show the features of our smartbox and how it can be used for pesticide detection. https://2025.igem.wiki/hk-joint-school/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/413122da-43d1-4444-8623-93524a7c10a1/1796266a-6ffd-4ffb-aeaf-f132eee55828-master.m3u8https://video.igem.org/videos/embed/93UNq7rFRHKJGiBTpQsy2X610212025-09-25T09:39:03.745ZPESTICIDESHIGH CHOOLSMARTBOXHK-JOINT-SCHOOLSynthetic BiologyYES2025 TeamsNOhttps://video.igem.org/w/bL2auocNyofDWb2F2zK5Zehttps://video.igem.org/lazy-static/thumbnails/e6b287b8-21d3-4d03-92f0-ee8e36f446f1.jpgULethbridge: What is O-SAGE (2025) [English]In this video we will go over what MAGE/O-SAGE is and how it workshttps://static.igem.org/peertube/streaming-playlists/hls/5720d45f-5786-427a-b99b-130e32d5932f/0cee5ef0-5bb5-4b7c-b2c3-31e5e3694c7d-master.m3u8https://video.igem.org/videos/embed/bL2auocNyofDWb2F2zK5Ze442092025-09-25T09:13:28.656ZYES2025 TeamsNOhttps://video.igem.org/w/ra9ZLTdSVRzPGifEgJaHjvhttps://video.igem.org/lazy-static/thumbnails/baf50cea-23e4-4676-a96e-91ed8eff3dd9.jpgULethbridge: What Is 3D Printing (2025) [English]In this video we will go over what 3D printing is and its uses in a synthetic biology space https://static.igem.org/peertube/streaming-playlists/hls/cbbbb458-65c3-4768-a9b0-f5cd873d28dd/a0ad78e6-3f04-4dd4-bd27-ef242732148c-master.m3u8https://video.igem.org/videos/embed/ra9ZLTdSVRzPGifEgJaHjv201062025-09-25T09:52:48.113ZYES2025 TeamsNOhttps://video.igem.org/w/6XWK2o54demqDvpG4aVujFhttps://video.igem.org/lazy-static/thumbnails/0030b9ae-19d5-4655-adc1-67375a6e0ebe.jpgULethbridge: What Is Enzyme Engineering (2025) [English]In this video we will go over what enzyme engineering is and how it is used https://static.igem.org/peertube/streaming-playlists/hls/304d5623-52b9-46b3-a8eb-cf2b4318af63/0d1b1b14-573e-4765-90e5-4b1310d77e1a-master.m3u8https://video.igem.org/videos/embed/6XWK2o54demqDvpG4aVujF368032025-09-25T10:08:58.198ZYES2025 TeamsNOhttps://video.igem.org/w/quyPedTBC72gpXhiYHyb2bhttps://video.igem.org/lazy-static/thumbnails/5decbce2-cea7-4a25-a70a-896846f8d9d8.jpgULethbridge: How To Do A Transformation (2025) [English]In this video we will go over how to perform a transformation with DH5𝛼 https://static.igem.org/peertube/streaming-playlists/hls/c658603b-fe6a-4f68-ab2b-5980fb04de7c/6b8c43c3-568f-4011-853a-92dd00af808e-master.m3u8https://video.igem.org/videos/embed/quyPedTBC72gpXhiYHyb2b337032025-09-25T10:33:19.852ZYES2025 TeamsNOhttps://video.igem.org/w/iExRe26g6aWPfCJ5GA7eMAhttps://video.igem.org/lazy-static/thumbnails/3e5fcf9b-ce4e-4334-be13-3609d0d3a44f.jpgULethbridge: How To Grow Non-Pathogenic E.coli And Conduct A Plasmid Purification (2025) [English]In this video we will go over how to grow DH5α bacteria and how to purify plasmids using the NEB mini-prep kithttps://static.igem.org/peertube/streaming-playlists/hls/8f0d3f78-ce39-429a-b0c1-d16888ea4d38/5c28f12e-0e50-47b8-bf72-192254914025-master.m3u8https://video.igem.org/videos/embed/iExRe26g6aWPfCJ5GA7eMA555032025-09-25T13:04:35.439ZYES2025 TeamsNOhttps://video.igem.org/w/53QfRm9pMLTFDzigAWmxVehttps://video.igem.org/lazy-static/thumbnails/ab5f2d3c-0a19-47bc-b0d8-8a10f22ef587.jpgULethbridge: How To Run A SDS-PAGE (2025) [English]In this video we will go over how to perform a SDS-Page start to finish. https://static.igem.org/peertube/streaming-playlists/hls/20c9c7f1-5a95-4425-a81f-7dafddcb566b/24293d86-54e9-4486-8b02-149ac6e6571f-master.m3u8https://video.igem.org/videos/embed/53QfRm9pMLTFDzigAWmxVe564032025-09-25T13:40:16.879ZYES2025 TeamsNOhttps://video.igem.org/w/khJnBV8eHvGCECBk7CD1jshttps://video.igem.org/lazy-static/thumbnails/1953819b-14f3-4929-9dbb-93c3f37b59c4.jpgULethbridge: How To 3D Print Functional Parts (2025) [English]In this video we will go over how to print functional parts that can be used in the labhttps://static.igem.org/peertube/streaming-playlists/hls/9c33a5e2-ce65-43be-a648-800f7be92a36/531fd43c-45bc-4960-9c35-e7fad9495fa2-master.m3u8https://video.igem.org/videos/embed/khJnBV8eHvGCECBk7CD1js881032025-09-26T08:17:27.040ZYES2025 TeamsNOhttps://video.igem.org/w/wncfmZ1gKrySmNnBYckhYNhttps://video.igem.org/lazy-static/thumbnails/abaf1e86-fcd7-443e-a39c-ab0bc644facc.jpgFHS-NB-ZJ-China: Mitochondria Story (2025) [English]A Story About the Endosymbiotic Theory of Mitochondria. Enjoy it! https://2025.igem.wiki/fhs-nb-zj-chinahttps://static.igem.org/peertube/streaming-playlists/hls/f5e7b5e7-3f2c-4fc5-82df-a540d7c88006/afb7ffbc-97f0-45ac-9ae2-8053b5ccb8e6-master.m3u8https://video.igem.org/videos/embed/wncfmZ1gKrySmNnBYckhYN89072025-09-26T13:54:59.252ZYES2025 TeamsNOhttps://video.igem.org/w/59PXyjrERoiJYdbmBG4trMhttps://video.igem.org/lazy-static/thumbnails/16d62143-a851-4ea4-a226-0d59098a5565.jpgRochester: PHA synthesis (2025)animation of pha plastic synthesishttps://static.igem.org/peertube/streaming-playlists/hls/21a00f55-4dd5-4cac-b45d-f8539a99287b/ad75cad6-7c49-4cf9-9014-b969769b7807-master.m3u8https://video.igem.org/videos/embed/59PXyjrERoiJYdbmBG4trM1901082025-09-25T09:14:02.945ZYES2025 TeamsNOhttps://video.igem.org/w/d7HP9x59QDCbMAksPCM9tEhttps://video.igem.org/lazy-static/thumbnails/62cf609b-24f9-4631-ab77-a5de136edfb0.jpgOkinawa no Daigaku: Interview with Tsubara Miyahira (2025) [Japanese]Interview and farm walk with Tsubasa Miyahira, owner of Miyahira Farm, LLC. Farm walk begins at 3:29! Check out our project at https://2025.igem.wiki/okinawa-no-daigaku/https://static.igem.org/peertube/streaming-playlists/hls/621de507-6503-4f89-bd90-549c19d14d0c/e4e40f00-4cf6-4919-9048-f09695f74fac-master.m3u8https://video.igem.org/videos/embed/d7HP9x59QDCbMAksPCM9tE2940292025-09-25T09:36:49.630ZPest PreventionFarmerFarmingMangoAgricultureYES2025 TeamsNOhttps://video.igem.org/w/uFEzD3X3dNHKK5GEJhvjSThttps://video.igem.org/lazy-static/thumbnails/9c3ca553-14f8-44b6-ad57-3b0679b26b46.jpgOkinawa no Daigaku: Itoman JA Farmers Market Interviews (2025) [Japanese]Meet customers at the Itoman JA Farmers Market as they talk about their love of Okinawan mangos and what makes Okinawan mangos unique! Check out our project at https://2025.igem.wiki/okinawa-no-daigaku/https://static.igem.org/peertube/streaming-playlists/hls/e849aa4e-eca4-4689-a2ce-2aa147009357/33272184-fa9c-4831-83b1-e610693405c4-master.m3u8https://video.igem.org/videos/embed/uFEzD3X3dNHKK5GEJhvjST1220122025-09-25T10:04:52.086ZOkinawaPublic OpinionMangoInterviewFarmers MarketYES2025 TeamsNOhttps://video.igem.org/w/3phy6j8kDBDuGgyCtHe4Jehttps://video.igem.org/lazy-static/thumbnails/ef1eff65-cd15-4dc0-ba9a-ea3a05625051.jpgKeystone: AD population (2025) [English]Age-Standardized Pravalence Rate of AD per one hundred thousand populationhttps://static.igem.org/peertube/streaming-playlists/hls/137295da-85af-482a-8623-ade305dcbc75/d7dbee14-6455-4866-b8e9-055d53383679-master.m3u8https://video.igem.org/videos/embed/3phy6j8kDBDuGgyCtHe4Je4032025-09-25T11:41:34.064ZYES2025 TeamsNOhttps://video.igem.org/w/jx8TnwpsmEbNqPF8J6tRcfhttps://video.igem.org/lazy-static/thumbnails/efc3f764-1725-47b3-9092-8d4f4f9fd861.jpgXJTLU-Software: particle3 (2025)A background video which should be placed in the first place in HOME.https://static.igem.org/peertube/streaming-playlists/hls/961d6998-f9ef-40aa-a1bc-a971b1850278/0b790fa9-cc7d-4f89-bbba-baa3b26ed606-master.m3u8https://video.igem.org/videos/embed/jx8TnwpsmEbNqPF8J6tRcf50132025-09-25T13:55:21.150ZYES2025 TeamsNOhttps://video.igem.org/w/q9WWa7oUWoS255JgM6Fnwmhttps://video.igem.org/lazy-static/thumbnails/4fa68710-1f88-4192-aeaf-5ede7ae24506.jpgShanghaitech-China: wiki Cinematics (2025)This is the opening cutscene that we clicked on on our wiki home page.https://static.igem.org/peertube/streaming-playlists/hls/c39b21d2-b704-4e55-b3fb-4f7d43523c1c/b361e56c-5604-4fff-9d1b-9d5f474668d2-master.m3u8https://video.igem.org/videos/embed/q9WWa7oUWoS255JgM6Fnwm7002025-09-26T07:25:45.514ZYES2025 TeamsNOhttps://video.igem.org/w/k7XkqXHh5XZgFRH1zgZSo9https://video.igem.org/lazy-static/thumbnails/c4fb85a1-52a5-492e-a187-a1470b31f0c7.jpgXJTLU-Software: page6ani (2025)An animation which will be placed at the sixth page in HOME.https://static.igem.org/peertube/streaming-playlists/hls/9ad632d5-6a39-40ce-9664-f2d31d620004/30e40b7c-5a6b-4fe8-83c8-a437c7a9fadb-master.m3u8https://video.igem.org/videos/embed/k7XkqXHh5XZgFRH1zgZSo94022025-09-26T07:25:52.056ZYES2025 TeamsNOhttps://video.igem.org/w/vPuQFHPfd452XBefT9eMnhhttps://video.igem.org/lazy-static/thumbnails/1424cade-f53c-4593-8d62-a3be335cc06f.jpgXJTLU-Software: page5-1 (2025)An animation which will be placed at the fifth page in HOME.https://static.igem.org/peertube/streaming-playlists/hls/f17ac051-1bf0-481a-9cbd-712194c80c8e/9b25e46e-fcc7-4e43-9129-ea7d41788e35-master.m3u8https://video.igem.org/videos/embed/vPuQFHPfd452XBefT9eMnh4022025-09-26T07:26:21.266ZYES2025 TeamsNOhttps://video.igem.org/w/kFUDHZvuyhAEQSEiZdGBDZhttps://video.igem.org/lazy-static/thumbnails/8cc08939-1803-4464-925c-80fd8838190b.jpgOUC-Haide: Physical operation demonstration of the robotic arm (2025)用真实的机械臂对仿真硅胶实物伤口上药模拟https://static.igem.org/peertube/streaming-playlists/hls/9f7016aa-8fc4-4caf-8c5f-2420304d4b67/17b94e3c-f60a-4d29-93b5-59969d86a80e-master.m3u8https://video.igem.org/videos/embed/kFUDHZvuyhAEQSEiZdGBDZ13082025-09-26T07:33:01.586ZHands-on operationmechanical armYES2025 TeamsNOhttps://video.igem.org/w/288HGBYg6HwJsvZxLV5Rqyhttps://video.igem.org/lazy-static/thumbnails/79434412-673a-451f-a1a9-80f005498c8a.jpgRochester: Intro logo animation fade (2025)Rochester: Intro logo animation fade (2025)https://static.igem.org/peertube/streaming-playlists/hls/09181a1e-faa0-4035-9058-5394345ebf24/8275d647-2583-40df-a913-e629f2dd2f68-master.m3u8https://video.igem.org/videos/embed/288HGBYg6HwJsvZxLV5Rqy607512025-09-26T07:26:36.744ZYES2025 TeamsNOhttps://video.igem.org/w/o3B4duN7Fr8CVMYqZqBJUwhttps://video.igem.org/lazy-static/thumbnails/7c9755d7-f86d-43c1-811d-13cc4a9562b5.jpgRochester: End logo animation loop fade (2025)Rochester: End logo animation loop fade (2025)https://static.igem.org/peertube/streaming-playlists/hls/b2862449-2d16-4cd1-b927-3652eaa39a66/96144beb-f94e-49cd-a131-5d33626d915a-master.m3u8https://video.igem.org/videos/embed/o3B4duN7Fr8CVMYqZqBJUw2905042025-09-26T07:27:59.284ZYES2025 TeamsNOhttps://video.igem.org/w/9K7yV3x9E2XESnUWGQ8ifyhttps://video.igem.org/lazy-static/thumbnails/0b6291e7-fc88-4ef5-a10d-75c17dc8ebfb.jpgEPFL: Burn Test Demo- Wood Coated with Cellulose–Chitosan–Silica–Cell Lysate Gel (2025)This video shows the setup of our burn test. A wood piece is held by a clamp on a support rod and exposed to flame. Half of the wood surface is coated with a gel composed of cellulose, chitosan, silica, and cell lysate.https://static.igem.org/peertube/streaming-playlists/hls/46ce2385-2bbd-4b18-a1d0-2dcaee508a48/afc45f94-bac2-472b-b2f6-cbfa86204069-master.m3u8https://video.igem.org/videos/embed/9K7yV3x9E2XESnUWGQ8ify53012025-09-26T07:24:59.186ZYES2025 TeamsNOhttps://video.igem.org/w/fngZrXCofhWdsvqdYKEWuYhttps://video.igem.org/lazy-static/thumbnails/5868e8dc-298d-44c8-abb6-e48b55200c1f.jpgEPFL: Burn Test IR Camera Feed: Wood Coated with Cellulose–Chitosan–Silica–Cell Lysate Gel (2025)Infrared camera feed from the burn test conducted . A wood sample, half coated with a cellulose–chitosan–silica–cell lysate gel, is clamped on a support rod and exposed to flame for comparative thermal resistance assessment.https://static.igem.org/peertube/streaming-playlists/hls/74586a36-422a-41ac-8d8c-27c32fa582c8/d60a95e9-1f3f-4987-8fbe-f2aae126b928-master.m3u8https://video.igem.org/videos/embed/fngZrXCofhWdsvqdYKEWuY530632025-09-26T07:26:00.274ZYES2025 TeamsNOhttps://video.igem.org/w/4AGcr4vivsDb23ynDfd7N6https://video.igem.org/lazy-static/thumbnails/ad70478f-5724-49fc-9207-04f0c733e49e.jpgYNNU-China: Fig. 4 The top 20 structures of taxadiene docked into T5aH-HEME by DiffDock (2025)https://2025.igem.wiki/ynnu-china/model The top 20 structures of taxadiene docked into T5aH-HEME by DiffDock.https://static.igem.org/peertube/streaming-playlists/hls/1d2379fc-4b46-407a-ad0e-549dbd4c2969/78f2adb5-3814-4eca-8e64-f3f37cbd1a36-master.m3u8https://video.igem.org/videos/embed/4AGcr4vivsDb23ynDfd7N65092025-09-26T07:26:11.797ZtaxadieneT5aH DiffDockYES2025 TeamsNOhttps://video.igem.org/w/aVWd7RnK52k8CPAB7oSEwmhttps://video.igem.org/lazy-static/thumbnails/75622d3d-cc9f-4bed-a4bc-b68ebb1b5944.jpgTianjin: prediction model (2025)Tianjin: prediction model (2025)https://static.igem.org/peertube/streaming-playlists/hls/506a133f-c7e0-40f9-91dc-e104b7ccd1e8/cc65d3cc-168a-4684-b49e-3b104c152ee2-master.m3u8https://video.igem.org/videos/embed/aVWd7RnK52k8CPAB7oSEwm350222025-09-26T07:39:17.194ZYES2025 TeamsNOhttps://video.igem.org/w/i6Fodkmp3b4piatkrzTi1Rhttps://video.igem.org/lazy-static/thumbnails/a33ed1e3-5b78-4ca7-93af-044c1eb86079.jpgYNNU-China: Fig. 10 Protein surface residue exposure analysis (2025)YNNU-China: Fig. 10 Protein surface residue exposure analysis. (2025) [English] In REvoDesign, the improvement in enzyme stability and solubility are achieved by modifying the residues on protein surface. To this end, REvoDesign firstly identifies the solvent-accessible surface area (SASA) residue hotspots https://2025.igem.wiki/ynnu-china/modelhttps://static.igem.org/peertube/streaming-playlists/hls/8a7658c0-c741-4baa-b9c5-e22fb635aa7d/5a78129f-7fea-49e8-a8c8-9882e46a16e4-master.m3u8https://video.igem.org/videos/embed/i6Fodkmp3b4piatkrzTi1R58072025-09-26T07:28:09.443ZsolubilitystabilityREvoDesignYES2025 TeamsNOhttps://video.igem.org/w/brD8nsn6C15oSFXCHRSYT6https://video.igem.org/lazy-static/thumbnails/4810ad43-ece9-4201-9079-1ef58a924f50.jpgUCS-A: NFC demo (2025)UCS-A: NFC demo (2025)https://static.igem.org/peertube/streaming-playlists/hls/548fdc78-c9f9-4654-aa8c-ff3576e7d373/b3a97c38-7088-4c0a-9fba-1aed83534542-master.m3u8https://video.igem.org/videos/embed/brD8nsn6C15oSFXCHRSYT614052025-09-26T09:31:41.276ZYES2025 TeamsNOhttps://video.igem.org/w/g2kyfnPMpvAEK95jc7gV85https://video.igem.org/lazy-static/thumbnails/e903cba7-5455-4f3b-8727-19ec78b1fb19.jpgHK-Joint-School: Spray pesticide (2025)HK-Joint-School: Spray pesticide (2025)https://static.igem.org/peertube/streaming-playlists/hls/79a8e01f-906f-4360-9557-bf55ee7d3726/d8837be5-dcfe-42cb-bcc7-2f5affc59d1d-master.m3u8https://video.igem.org/videos/embed/g2kyfnPMpvAEK95jc7gV857012025-09-26T13:33:37.002ZYES2025 TeamsNOhttps://video.igem.org/w/pik1Zxfy8vcBgffFtbLhFphttps://video.igem.org/lazy-static/thumbnails/41c90643-ce28-41db-923b-322b40d00a61.jpgHK-Joint-School: Workflow of Smartbox (2025) [English]This video shows the workflow of our samrtbox which can be used to measure the pesticide concentration. https://2025.igem.wiki/hk-joint-school/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/bcad8d8f-e113-4bb2-8959-465ef96cb34d/5c754399-b8a5-4894-956f-8904d26296d1-master.m3u8https://video.igem.org/videos/embed/pik1Zxfy8vcBgffFtbLhFp490262025-09-26T13:39:33.081Z High schoolPesticides Smartbox iGEM2025HK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/dPJ8vDC2d9xdZCvhb5UnYKhttps://video.igem.org/lazy-static/thumbnails/644b9ce7-5027-46c0-8f80-ac0ce07e9090.jpgHK-Joint-School: Software (2025) [English]The user guide video for our software which can be used to detect the concentration of pesticides. https://2025.igem.wiki/hk-joint-school/softwarehttps://static.igem.org/peertube/streaming-playlists/hls/67d79597-3831-4aca-9965-e9135ad707ef/93992ef0-3051-4c7e-a108-4d0839a5aca6-master.m3u8https://video.igem.org/videos/embed/dPJ8vDC2d9xdZCvhb5UnYK110062025-09-26T13:45:41.097ZiGEM2025HK-JOINT-SCHOOLPESTICIDES High schoolSynthetic BiologyYES2025 TeamsNOhttps://video.igem.org/w/hTZsY5EYZVJki4RjcfuRRphttps://video.igem.org/lazy-static/thumbnails/40608c09-c770-4b03-959b-cc28a2a4eb23.jpgBIT-China:Green light inducible promoter schematic diagram (2025) [English]TDH3 is a constitutive promoter, followed by the CarH gene, which expresses the CarH protein. The CarH protein forms a tetramer and binds to the CarO site, repressing the expression of downstream genes. Under green light, the CarH tetramer disassembles, and the repression disappears, allowing the downstream reporter gene EGFP to be expressed. https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/88d4909a-c30c-4202-9ade-14cbd283ac35/0d4331ee-758b-403a-9511-e19cf9185f2f-master.m3u8https://video.igem.org/videos/embed/hTZsY5EYZVJki4RjcfuRRp18052025-09-29T08:42:10.441ZYES2025 TeamsNOhttps://video.igem.org/w/rvPSC3qkLjJqxCd1pBUMDWhttps://video.igem.org/lazy-static/thumbnails/08a9413b-5336-47e2-aaff-ce0e56864f56.jpgIonis-Paris: Entrepreneurship (2025) [English]https://2025.igem.wiki/ionis-parishttps://static.igem.org/peertube/streaming-playlists/hls/ce9e89d9-dab7-40e5-a050-e758c1f35a9c/55f14189-aab4-4d38-bc01-dd978151b693-master.m3u8https://video.igem.org/videos/embed/rvPSC3qkLjJqxCd1pBUMDW1500212025-09-29T08:46:46.370ZYES2025 TeamsNOhttps://video.igem.org/w/f3Yt8XE2hwr2UFfHGzrSvLhttps://video.igem.org/lazy-static/thumbnails/32033472-1ecd-4f27-b41b-4ac5347ea30c.jpgOUC-Haide: HP-RTP (2025) [English]OUC-Haide: HP-RTP (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/71ca3a75-1b6c-43d0-b861-276c361b23fe/2514bca9-30cb-4367-8188-42cba5fa86a4-master.m3u8https://video.igem.org/videos/embed/f3Yt8XE2hwr2UFfHGzrSvL20312025-09-29T11:32:04.375ZYES2025 TeamsNOhttps://video.igem.org/w/8tG9bJXDk8D4xpsvh5EqFWhttps://video.igem.org/lazy-static/thumbnails/d40614b4-a8c7-42ce-a036-959fd836bab2.jpgOUC-Haide: VEGF_IL4_IL10_diffusion_comparison (2025) [English]OUC-Haide: VEGF_IL4_IL10_diffusion_comparison (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/3c8dca4e-3f34-4bdc-b9af-6846f7be1bdc/488f8eda-1b0b-41bb-b945-96fc4351fa9d-master.m3u8https://video.igem.org/videos/embed/8tG9bJXDk8D4xpsvh5EqFW80502025-09-29T12:04:51.356ZYES2025 TeamsNOhttps://video.igem.org/w/9JsePoS95vserWtQpbdUj1https://video.igem.org/lazy-static/thumbnails/84cb27ba-683c-4c18-ab49-3c67378b08d7.jpgOUC-Haide: The state change of hydrogel (2025) [English]OUC-Haide: The state change of hydrogel (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/46b6847a-fb7e-4311-9ebf-7212dcedb8c4/c30bbe2e-d4dc-4247-bf62-30ae4ddd7361-master.m3u8https://video.igem.org/videos/embed/9JsePoS95vserWtQpbdUj190142025-09-29T13:25:33.390ZYES2025 TeamsNOhttps://video.igem.org/w/uKpPCpjn8eqksFnLgLWwWrhttps://video.igem.org/lazy-static/thumbnails/fccdbaea-4019-4251-b43f-d1036285aeea.jpgLambert-GA: PDL Animation (2025)Animation depicting the proximity-dependent ligation process. https://static.igem.org/peertube/streaming-playlists/hls/e8cf8b7e-e0e9-4ffb-9cfe-3f968497149d/66ccd361-bd79-484c-9461-a7967827b130-master.m3u8https://video.igem.org/videos/embed/uKpPCpjn8eqksFnLgLWwWr6022025-09-29T08:46:51.422ZYES2025 TeamsNOhttps://video.igem.org/w/fN6zuDh2wzFi7X99qbbthAhttps://video.igem.org/lazy-static/thumbnails/f6fbed01-d843-45e1-82d9-514b3deb81da.jpgHamburg Trailer (2025) [English]Presentation of the iGEM Hamburg 2025 project: Death Cap Trap. The death cap mushroom kills every year, possibly every time. One bite can be enough to end somebodies life https://static.igem.org/peertube/streaming-playlists/hls/77cf9787-057c-4566-a4ea-ec97faa2fabe/059e20e2-ed34-4323-9677-e3fd1f3434d4-master.m3u8https://video.igem.org/videos/embed/fN6zuDh2wzFi7X99qbbthA270372025-09-29T08:48:04.773ZYES2025 TeamsNOhttps://video.igem.org/w/qVBHYYDAcWNqKDiGj2xHYihttps://video.igem.org/lazy-static/thumbnails/ff40cc78-206d-4260-9056-5d9537aaeafe.jpgFHS-NB-ZJ-China: Guess (2025) [Chinese]Scratch-and-Guess, a small game to help memorize the names of cell structures in Chinese. https://2025.igem.wiki/fhs-nb-zj-china/https://static.igem.org/peertube/streaming-playlists/hls/c9d7c363-fdd8-4654-883b-fc51fdb8c42d/36ab1c4c-33a5-4479-baab-fee6b1cb2f47-master.m3u8https://video.igem.org/videos/embed/qVBHYYDAcWNqKDiGj2xHYi12042025-09-29T11:32:19.342ZYES2025 TeamsNOhttps://video.igem.org/w/sdmbNE7jqBr8PYpc95foRYhttps://video.igem.org/lazy-static/thumbnails/35f20cb7-e129-4567-8d52-22908e43ee0b.jpgFSU: PS Unit A cMD 20ns binding (2025)FSU: PS Unit A cMD 20ns binding (2025)https://static.igem.org/peertube/streaming-playlists/hls/d446f87b-c914-4ac7-829b-e3fe9be3e41a/825c41e3-c267-44cd-aba5-94d717d5bf4b-master.m3u8https://video.igem.org/videos/embed/sdmbNE7jqBr8PYpc95foRY1310272025-09-29T08:59:30.447ZYES2025 TeamsNOhttps://video.igem.org/w/1WkFQHM4vbxqn2N3M6nSrQhttps://video.igem.org/lazy-static/thumbnails/5fe9ef67-97ea-4866-a3b0-120da43b0d93.jpgDTU-Denmark: Team member introduction (2025) [English]A brief video introduction about the team members of the 2025 DTU BioBuilder team (Denmark). Wiki link: https://2025.igem.wiki/dtu-denmark/https://static.igem.org/peertube/streaming-playlists/hls/07964bca-a955-4cfb-99b5-f1294a57b51a/05676ce6-e416-4fb7-b421-ba2cf86a1a03-master.m3u8https://video.igem.org/videos/embed/1WkFQHM4vbxqn2N3M6nSrQ1340762025-09-29T09:14:03.701ZYES2025 TeamsNOhttps://video.igem.org/w/iVFXnfoyUYMfVjjK6hswidhttps://video.igem.org/lazy-static/thumbnails/6f2e0a71-698f-4c35-bf09-7baf83ef9680.jpgBrno Czech Republic: Taifr animation (2025)TAIFR progress explained. https://static.igem.org/peertube/streaming-playlists/hls/912a6661-4b87-403a-affc-adb4dbaad10e/626d148d-71ee-4fb9-aa30-1b12bcc40aab-master.m3u8https://video.igem.org/videos/embed/iVFXnfoyUYMfVjjK6hswid24042025-09-29T09:00:01.417ZYES2025 TeamsNOhttps://video.igem.org/w/547r52Do7myT2MGDEinT9Fhttps://video.igem.org/lazy-static/thumbnails/9956ca84-4269-4f20-9b6f-6fe7649233a9.jpgOUC-Haide: Dynamic Simulation Demonstration at 4 degrees Celsius for 8ns (2025)Dynamic simulation demonstration at 4 degrees Celsius for 8ns.https://static.igem.org/peertube/streaming-playlists/hls/20d3bffc-f819-43c6-b300-6d2c6310377b/387c39a4-a62d-497c-9496-39673ed707cf-master.m3u8https://video.igem.org/videos/embed/547r52Do7myT2MGDEinT9F11032025-09-29T13:40:36.128Zmolecular dynamics simulationYES2025 TeamsNOhttps://video.igem.org/w/oAG3mRjHFnvbtnzQQoNGv5https://video.igem.org/lazy-static/thumbnails/a4735be0-cf40-4358-9519-94809baa2ed7.jpgOUC-Haide: Molecular Dynamics Simulation Process of Six Chain Polysaccharide and Pexiganan (2025) Molecular dynamics simulation process of 6 Chain Polysaccharide and 10 Pexiganan.https://static.igem.org/peertube/streaming-playlists/hls/b70103bf-d889-40be-89b1-5e46e9570e46/84e9301a-41ef-46b4-ac9a-12bbff404ee2-master.m3u8https://video.igem.org/videos/embed/oAG3mRjHFnvbtnzQQoNGv56072025-09-29T13:41:53.979Zmolecular dynamics simulationYES2025 TeamsNOhttps://video.igem.org/w/kdBsAV6ChK1KUxVyMpcXMmhttps://video.igem.org/lazy-static/thumbnails/06abe028-8018-4db2-95c8-025ab6a6c5d6.jpgZJU-China: Fenghua High School's visits (2025) [German]ZJU-China: Fenghua High School's visits (2025) [German]https://static.igem.org/peertube/streaming-playlists/hls/9ba06975-b5d8-4429-8f93-41da4632adca/b1fbd1f9-cc2c-4f39-bf11-d48f1902697d-master.m3u8https://video.igem.org/videos/embed/kdBsAV6ChK1KUxVyMpcXMm14022025-09-29T09:00:17.927ZYES2025 TeamsNOhttps://video.igem.org/w/wXrShi5JHm5u2VHSD1XjTPhttps://video.igem.org/lazy-static/thumbnails/ce830ca6-da01-4fdd-ba1b-ae6abb7fe88c.jpgBarcelona-UB: TADPOLE Tutorial (2025) [English]This video covers all the necessary to be able to use our software tool: TADPOLE. It covers the Model the Software uses, the Essential inputs and the Results format. https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/fab00219-76c2-4a75-8516-d69938ddfcfd/ead150f3-be72-4ef3-ae32-6e3bb7dfdcb4-master.m3u8https://video.igem.org/videos/embed/wXrShi5JHm5u2VHSD1XjTP106601432025-09-29T11:28:31.766ZYES2025 TeamsNOhttps://video.igem.org/w/v6jND5vZmK9q2HpQXVkK4khttps://video.igem.org/lazy-static/thumbnails/2e1c21a4-e52c-4122-ba30-2eec4e1e1ac4.jpgXJTLU-CHINA: hardware (2025)An explosive video of XJTLU-CHINA as the hardware for capturing Green algae spore will be used on this website https://2025.igem.wiki/xjtlu-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/eb975414-e32a-490d-bf54-8433d37d70f5/39d30895-e45f-4acb-9c41-6362f23b8185-master.m3u8https://video.igem.org/videos/embed/v6jND5vZmK9q2HpQXVkK4k1601352025-09-29T09:02:13.451ZYES2025 TeamsNOhttps://video.igem.org/w/dVwwn7eaw8v4F7cfTcGJKVhttps://video.igem.org/lazy-static/thumbnails/20b2bc28-2926-4883-a25e-c77707d02046.jpgTUDarmstadt: Owl (2025)Video icon for the scroll to the top buttonhttps://static.igem.org/peertube/streaming-playlists/hls/68a6e4fe-ed33-4eaa-8086-87a1443991ab/0a3ccf40-ce2e-4ef7-9cbd-10f271c3f10b-master.m3u8https://video.igem.org/videos/embed/dVwwn7eaw8v4F7cfTcGJKV1002025-09-29T09:02:13.712ZYES2025 TeamsNOhttps://video.igem.org/w/xn2Nmjf1zsJ6atpqsj6tj7https://video.igem.org/lazy-static/thumbnails/2574527b-92fd-45ca-8689-964e3b92e729.jpgXJTLU-CHINA: diffusion-1D (2025)1D model for predictive analysis of AHL diffusion will be used on this website https://2025.igem.wiki/xjtlu-china/model https://static.igem.org/peertube/streaming-playlists/hls/fdfb06c1-8687-4409-8831-f9de4687178e/51638a47-705a-4ee5-ac5c-8cea5c8dc6ff-master.m3u8https://video.igem.org/videos/embed/xn2Nmjf1zsJ6atpqsj6tj714403072025-09-29T11:32:27.062ZYES2025 TeamsNOhttps://video.igem.org/w/seQwn72b4zEXxrDtq14v8ihttps://video.igem.org/lazy-static/thumbnails/81488257-ed11-4988-8481-f31029a195ed.jpgXJTLU-CHINA: diffusion-2D (2025)A 2D model for predictive analysis of AHL diffusion rate will be used on this website https://2025.igem.wiki/xjtlu-china/modelhttps://static.igem.org/peertube/streaming-playlists/hls/d47c2d87-75de-4e14-b32a-605d71a9bc73/9b69f526-ba53-4424-a555-ed6dee2ba8b7-master.m3u8https://video.igem.org/videos/embed/seQwn72b4zEXxrDtq14v8i502762025-09-29T12:04:53.939ZYES2025 TeamsNOhttps://video.igem.org/w/vaLVe93ydtbfHDfhkos2owhttps://video.igem.org/lazy-static/thumbnails/416835c6-c5db-4ce2-a943-0098a9a794cc.jpgXJTLU-CHINA: UATO4335 (2025)A 3D printer in operationwill be used on this website https://2025.igem.wiki/xjtlu-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/ec366586-99e4-44d1-b1b4-02419959928e/d6205b4d-1be1-4cf5-9bef-615177b94574-master.m3u8https://video.igem.org/videos/embed/vaLVe93ydtbfHDfhkos2ow501152025-09-29T13:25:54.449ZYES2025 TeamsNOhttps://video.igem.org/w/o5FdNa4LRNn6pQYLAkC5Pfhttps://video.igem.org/lazy-static/thumbnails/254addab-ac1f-4520-bf4a-1c0076b7b882.jpgDTU-Denmark: axolotl_sample (2025)An animation shown the inference of Axolotl, our AI model described on our wiki: https://2025.igem.wiki/dtu-denmark/modelhttps://static.igem.org/peertube/streaming-playlists/hls/b2d03237-cc5a-4fdf-860f-ecdfdc56e554/6370f104-28dc-4035-bc3a-faa54d94c791-master.m3u8https://video.igem.org/videos/embed/o5FdNa4LRNn6pQYLAkC5Pf40322025-09-29T11:32:38.956ZYES2025 TeamsNOhttps://video.igem.org/w/11pr3oiKqenfkHaoNSUAgqhttps://video.igem.org/lazy-static/thumbnails/08bea078-2d55-4634-a9f5-7fb0a7578f73.jpgDTU-Denmark: Episode 01_The Start of Our Synthetic Journey (2025) [English]First episode of DTU BioBuilder's (2025) video series, where you get a behind-the-scenes look at the team and their weekly meetings. https://static.igem.org/peertube/streaming-playlists/hls/000e70b9-220e-4a20-9819-8399f8897146/9a65ce79-2ba9-46f6-a3c5-7c5f6c6a8ecc-master.m3u8https://video.igem.org/videos/embed/11pr3oiKqenfkHaoNSUAgq555002025-09-29T13:01:04.352ZYES2025 TeamsNOhttps://video.igem.org/w/csADACzL94c5EnkHUjGC1yhttps://video.igem.org/lazy-static/thumbnails/574752ca-2bd0-4c6f-b831-0004812a51c0.jpgDTU-Denmark: Episode 02_Inside the Biobrick Workshop, where skills grow & teams connect (2025) [E...Second episode of DTU BioBuilder's (2025) video series, where you get a behind-the-scenes look at the team and their weekly meetings. It includes several clips from the Biobrick workshop, which we hosted, and where we invited various Scandinavian and German iGEM teams. https://static.igem.org/peertube/streaming-playlists/hls/5ccb374c-4538-40c8-96b6-cbfc886f0fd0/39038617-0d5c-46ce-88bd-71c49596a0b1-master.m3u8https://video.igem.org/videos/embed/csADACzL94c5EnkHUjGC1y613022025-09-29T13:47:57.340ZYES2025 TeamsNOhttps://video.igem.org/w/vuucjTgRgrZ6ziirmqZumbhttps://video.igem.org/lazy-static/thumbnails/6e6e1be6-e9f6-4e0e-a5dc-ca82681acc40.jpgMammothEdu-DTD-East: Fragrance Molecules Moving Simulation (2025) [Chinese]We simulated the 3D dynamic process of gas molecules, from release to diffusion to dissipation to visualize the diffusion of odours in a room. Credit to: Jiarui Bihttps://static.igem.org/peertube/streaming-playlists/hls/eed338ff-aef1-42aa-b61e-c412bc3ad72a/aaa2d071-7c84-4368-a304-aea2150083f2-master.m3u8https://video.igem.org/videos/embed/vuucjTgRgrZ6ziirmqZumb396022025-09-29T11:33:46.668ZYES2025 TeamsNOhttps://video.igem.org/w/kYyVw4zFVaiDbRbeMDwV3phttps://video.igem.org/lazy-static/thumbnails/3a5e93e2-8cd8-4e33-ba5a-7f8eea97cb2d.jpgOUC-Haide: Dynamic Simulation Demonstration at 37 degrees Celsius for 8ns (2025)Dynamic Simulation Demonstration at 37 degrees Celsius for 8ns.https://static.igem.org/peertube/streaming-playlists/hls/a1c39334-07e8-4ca9-b350-4a5cb7c4f55f/d95ca9d3-7d16-455d-b29e-a7b5926cf48c-master.m3u8https://video.igem.org/videos/embed/kYyVw4zFVaiDbRbeMDwV3p12072025-09-29T13:42:50.807ZYES2025 TeamsNOhttps://video.igem.org/w/qrUQaLP7wP3zbabdTXUzaChttps://video.igem.org/lazy-static/thumbnails/0a6ff869-c444-4df4-a07f-be7883e013e1.jpgShanghaitech-China: SynbioSH vlog (2025) [English]https://2025.igem.wiki/shanghaitech-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/c5f97ae3-b0d8-401c-b651-c6d17dca6642/a549632d-1448-4b37-97c3-945e076958a0-master.m3u8https://video.igem.org/videos/embed/qrUQaLP7wP3zbabdTXUzaC2130192025-09-29T09:04:16.832ZUrban OrientationEducationYES2025 TeamsNOhttps://video.igem.org/w/rK5xHrxDFMHJuNM3A13VBnhttps://video.igem.org/lazy-static/thumbnails/21fdaf42-c8f9-4029-893b-405d7273fe2f.jpgShanghaitech-China: How Common is Rhinosinusitis (2025) [English]https://2025.igem.wiki/shanghaitech-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/d078402c-4912-4c04-ab1b-6550fcfd9f07/c72e6702-e3d5-4d6c-9b8a-39c70bd5cf92-master.m3u8https://video.igem.org/videos/embed/rK5xHrxDFMHJuNM3A13VBn850172025-09-29T11:34:12.785Zpopularization of scienceShort videoEducationYES2025 TeamsNOhttps://video.igem.org/w/riUSdhsiCSNipH2zHUSq53https://video.igem.org/lazy-static/thumbnails/8ffc15d4-2da2-4b90-843b-99ff750e64d1.jpgShanghaitech-China: A Challenging Predicament (2025) [English]https://2025.igem.wiki/shanghaitech-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/ccf4b0b4-1032-4eca-bc32-6477496521ba/4f73904d-be77-480c-949a-e8e5a280dc37-master.m3u8https://video.igem.org/videos/embed/riUSdhsiCSNipH2zHUSq53740112025-09-29T12:10:08.448Zshort videoeducationpopularization of scienceYES2025 TeamsNOhttps://video.igem.org/w/1NB9oiPVK1tuwUzU5RVLvZhttps://video.igem.org/lazy-static/thumbnails/a6c09ac7-019d-4ec6-b04d-7fb085aa658a.jpgShanghaitech-China: Differences between Rhinitis and Rhinosinusitis (2025) [English]https://2025.igem.wiki/shanghaitech-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/0681df3d-18c2-4735-b3d6-98b0ce319153/a7fd4521-2089-43f3-bdb6-8e4c4b37c030-master.m3u8https://video.igem.org/videos/embed/1NB9oiPVK1tuwUzU5RVLvZ1070112025-09-29T13:26:26.629ZYES2025 TeamsNOhttps://video.igem.org/w/pvcTY9H3awzuq5XzTWCwjjhttps://video.igem.org/lazy-static/thumbnails/2fbf5382-6a72-46d1-9543-d913965d6020.jpgShanghaitech-China: Consequence of Procrastination (2025) [English]https://2025.igem.wiki/shanghaitech-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/be5616f5-5b65-4719-8d3e-76fd700607fe/ed235822-f297-4ab3-982e-fb618164b171-master.m3u8https://video.igem.org/videos/embed/pvcTY9H3awzuq5XzTWCwjj1150112025-09-29T13:27:34.798ZYES2025 TeamsNOhttps://video.igem.org/w/w7PmanvfHZJjkJoco6WQ2phttps://video.igem.org/lazy-static/thumbnails/ae387183-becd-46b3-9f9e-cbdb7628cc57.jpgTAU-Israel: SL Experiment (2025)Time-lapse of A549 cells (mCherry). RIOK1- and PRMT5-targeting ASOs induce cell death, while scrambled ASO shows cells remain alive. (SL - ASO experiment, iGEM TAU 2025) https://2025.igem.wiki/tau-israelhttps://static.igem.org/peertube/streaming-playlists/hls/f3e5cd2a-0fa6-4509-90b6-1fa46ed14451/61804bcb-d59c-4ecc-a25b-6fa5e36b0e6c-master.m3u8https://video.igem.org/videos/embed/w7PmanvfHZJjkJoco6WQ2p75462025-09-29T09:14:14.379ZYES2025 TeamsNOhttps://video.igem.org/w/c6FAH98fxRPkkByjt1croGhttps://video.igem.org/lazy-static/thumbnails/cb528314-23b8-456c-8a9d-001597d3a6e2.jpgVIS-Romania: Logic Gates (2025) [English}Use of logic gates in PROMNESIS: ensuring delivery of therapeutic when and where cells are affected by the disease. https://2025.igem.wiki/vis-romania/home https://static.igem.org/peertube/streaming-playlists/hls/59dfa5c3-6ff8-471f-a830-3a9dfafabac0/7647f5bb-350f-45c2-86c4-634c7cab35f8-master.m3u8https://video.igem.org/videos/embed/c6FAH98fxRPkkByjt1croG335452025-09-29T12:11:50.093ZYES2025 TeamsNOhttps://video.igem.org/w/p5E9BXo5GLPjHtRm3EjjSghttps://video.igem.org/lazy-static/thumbnails/b537693b-dcf6-4fd0-919f-892b28867065.jpgVIS-Romania: TRI-LYTAC (2025) [English]A TRIple LYsosome TArgeting Chimera for p-tau seed removal: a simplified explanation of its mechanism. https://2025.igem.wiki/vis-romania/homehttps://static.igem.org/peertube/streaming-playlists/hls/bae8ac97-2ad0-42dd-834d-a18fb6af6edb/a9e64c7e-987a-4bc2-a5fb-0277ca0e6667-master.m3u8https://video.igem.org/videos/embed/p5E9BXo5GLPjHtRm3EjjSg505362025-09-29T11:38:09.251ZYES2025 TeamsNOhttps://video.igem.org/w/5T3Tbb3QLxG4QCQU75xV9ohttps://video.igem.org/lazy-static/thumbnails/fb9fed6d-1976-4fe1-a32c-796a33e661cd.jpgVIS-Romania: TauTuner (2025) [English]A light-controlled enzyme that removes intracellular pathological proteins. https://2025.igem.wiki/vis-romania/homehttps://static.igem.org/peertube/streaming-playlists/hls/27854361-d77b-42c4-9a51-9b97f460d832/8868fea5-6440-41fd-8fd5-32c8c8ea381e-master.m3u8https://video.igem.org/videos/embed/5T3Tbb3QLxG4QCQU75xV9o495252025-09-29T12:13:22.557ZYES2025 TeamsNOhttps://video.igem.org/w/m7BddPANnnrbuavUDtGQDAhttps://video.igem.org/lazy-static/thumbnails/b9880cec-feb7-4c70-a371-2dc7c563a0d8.jpgAFCM-Egypt: Podcast SDG 3: Good Health and Well-Being E01 (2025) [English]Welcome to the first episode of AFCM-Egypt Podcast Series (2025), focusing on SDG 3: Good Health and Well-Being. This episode was created with the support of AI tools for narration, and production, showcasing how technology can help in science communication. Credits: Produced by the AFCM-Egypt iGEM Team 2025, with assistance from AI-based platforms. Special thanks to our team members and collaborators for their input and guidance. Learn more about our project on our Wiki: https://2025.igem.wiki/afcm-egypthttps://static.igem.org/peertube/streaming-playlists/hls/a2e2ef68-9276-4087-b554-b9924d07ecd4/13e9cac4-fb2e-4320-a8e8-9b88850f5510-master.m3u8https://video.igem.org/videos/embed/m7BddPANnnrbuavUDtGQDA180552025-09-29T09:16:52.906ZYES2025 TeamsNOhttps://video.igem.org/w/sbTLnVhmBa7eQAmePAhTVVhttps://video.igem.org/lazy-static/thumbnails/b9e8f92e-a547-4d9b-beb4-c903f84ae693.jpgDTU-Denmark: NomNom Nylon - Logo animation (2025)The animated NomNom Nylon logo for our team. https://static.igem.org/peertube/streaming-playlists/hls/d412f1ba-ec40-4fcf-9f43-d630315c5aa3/d1a39f9d-130f-473a-8326-536ca80e65fc-master.m3u8https://video.igem.org/videos/embed/sbTLnVhmBa7eQAmePAhTVV10022025-09-29T13:26:31.310ZYES2025 TeamsNOhttps://video.igem.org/w/hTkVoqw9hs4gDZ5qCe56FFhttps://video.igem.org/lazy-static/thumbnails/29077957-0598-4b45-aee8-7b58e665dc5c.jpgYNNU-China: loading-black (2025)https://2025.igem.wiki/ynnu-china/ This is the animation we use for wiki loading.https://static.igem.org/peertube/streaming-playlists/hls/88bd6d60-2a72-4b5d-ac62-05114c04f6a1/64e5646e-0415-4a38-931d-855d6a55b193-master.m3u8https://video.igem.org/videos/embed/hTkVoqw9hs4gDZ5qCe56FF3002025-09-29T13:26:33.227Ztamatowiki loadingYES2025 TeamsNOhttps://video.igem.org/w/2zkeBPGm2gEzvnYK39qEbohttps://video.igem.org/lazy-static/thumbnails/1895406a-ecc7-4c53-8701-166b1e326328.jpgYNNU-China: loading-light (2025)https://2025.igem.wiki/ynnu-china/ This is the animation we use for wiki loading.https://static.igem.org/peertube/streaming-playlists/hls/0cc08974-246b-46d8-ae4d-a1c840d5a0f2/7754a277-8c30-4b4a-803c-15715135b4a9-master.m3u8https://video.igem.org/videos/embed/2zkeBPGm2gEzvnYK39qEbo3002025-09-29T13:27:36.144Zwiki loadingYES2025 TeamsNOhttps://video.igem.org/w/fShBJdscnWNGnoxPjxBUe4https://video.igem.org/lazy-static/thumbnails/8bea3bd1-665a-445a-bdc0-c060313a98bf.jpgYNNU-China: E.Coil (2025)https://2025.igem.wiki/ynnu-china/index.html This is the synthetic biological engineering strain that we use for the wiki interface.https://static.igem.org/peertube/streaming-playlists/hls/78655ea5-7183-495a-824c-259944132f2d/bc385f2c-e965-4a25-93eb-f1bcdcf649a9-master.m3u8https://video.igem.org/videos/embed/fShBJdscnWNGnoxPjxBUe45042025-09-29T13:30:25.290ZE.CoilYES2025 TeamsNOhttps://video.igem.org/w/3UPqBSk984ycP5JHUKrkG2https://video.igem.org/lazy-static/thumbnails/1aa4bade-a5c4-4302-b999-443f3015b3c0.jpgYNNU-China: Bacteria (2025)https://2025.igem.wiki/ynnu-china/index.html This is the synthetic biological engineering strain that we use for the wiki interface.https://static.igem.org/peertube/streaming-playlists/hls/17922e02-1088-4d62-b2f4-71119d6f8615/1cd3a72e-e271-46ed-8a7a-5d0a77246519-master.m3u8https://video.igem.org/videos/embed/3UPqBSk984ycP5JHUKrkG25022025-09-29T13:31:11.198ZbacteriaYES2025 TeamsNOhttps://video.igem.org/w/q693T2ZqJ24m7VNeUkTj1vhttps://video.igem.org/lazy-static/thumbnails/e94e22c5-92ff-46b4-ab9e-327713097a71.jpgYNNU-China: Yeast (2025)https://2025.igem.wiki/ynnu-china/index.html This is the synthetic biological engineering strain that we use for the wiki interface.https://static.igem.org/peertube/streaming-playlists/hls/c31301e9-3936-4648-bfc7-5742690e5c8d/4bc00e24-39b5-46dd-83e2-f686eacb3a68-master.m3u8https://video.igem.org/videos/embed/q693T2ZqJ24m7VNeUkTj1v6032025-09-29T13:40:47.741ZYEASTYES2025 TeamsNOhttps://video.igem.org/w/qU7T8ZKZCUw8EnWTYwL24ghttps://video.igem.org/lazy-static/thumbnails/16a4e66a-3426-4a37-b969-15ccc9e07d6c.jpgHK-Joint-School: HKJS25 wiki loading (2025)This is a wiki loading video for wiki. Our team wiki: https://2025.igem.wiki/hk-joint-school/https://static.igem.org/peertube/streaming-playlists/hls/c9a23eaf-cfc1-44a4-b10c-b23188c6a261/bf4e0fc5-57b7-4b4c-a093-c8b1388f2e72-master.m3u8https://video.igem.org/videos/embed/qU7T8ZKZCUw8EnWTYwL24g8032025-09-29T09:16:34.152ZYES2025 TeamsNOhttps://video.igem.org/w/n34soRJfxa1PNGwoFmbQHfhttps://video.igem.org/lazy-static/thumbnails/1d3e0efb-e3b8-407b-ade9-82113aeb0685.jpgShanghaitech-China: Genomusic (2025)Shanghaitech-China: Genomusic (2025)https://static.igem.org/peertube/streaming-playlists/hls/aa598756-6fb5-4701-8e97-dce4b053dac8/b5630a53-2340-416a-8a82-43c49e441567-master.m3u8https://video.igem.org/videos/embed/n34soRJfxa1PNGwoFmbQHf1050182025-09-29T13:31:02.315ZeducationmusicYES2025 TeamsNOhttps://video.igem.org/w/rvofFywaiMf3g1zGEM7DR6https://video.igem.org/lazy-static/thumbnails/e5623c83-e7f7-435e-ad3b-598e6c1225e3.jpgShanghaitech-China: Hands-on (2025) [Chinese]https://2025.igem.wiki/shanghaitech-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/ce8ebff3-d122-425a-9def-e7b7ff7d7253/4c3012fe-5966-410d-9af3-72b54246a0f5-master.m3u8https://video.igem.org/videos/embed/rvofFywaiMf3g1zGEM7DR6143092025-09-29T13:40:59.376Zhands-oneducationworkshopYES2025 TeamsNOhttps://video.igem.org/w/aykJsHdFAZwxDu793RBAiYhttps://video.igem.org/lazy-static/thumbnails/733a1d26-bb49-4b9d-980a-36837dfccbe7.jpgUniMuenster: Umbrella Pull Simulation (2025)CM15 peptide pull process umbrella samplinghttps://static.igem.org/peertube/streaming-playlists/hls/4d66357a-cda3-4208-a937-6b2a6e460ca2/336c5ea0-d64b-4ee4-a485-f096190d0047-master.m3u8https://video.igem.org/videos/embed/aykJsHdFAZwxDu793RBAiY30392025-09-29T09:17:15.524ZYES2025 TeamsNOhttps://video.igem.org/w/2GZALLMMrWgeeLYLajdmkChttps://video.igem.org/lazy-static/thumbnails/f6bd8ca8-57fd-466f-9e0a-e45e0f14ac23.jpgMSP-Maastricht: Unlocking Programmable Biology with Pranam Chatterjee (2025) [English]In the first episode of our interview series, we are joined by Dr. Pranam Chatterjee. His work is at the intersection of immunology, CRISPR genome editing, AI protein design, and biotech entrepreneurship. From early work on immunology at Harvard to creating novel CRISPR systems at MIT, Pranam’s work is reshaping synthetic biology as you read this description. Today, he is the head of the Programmable Biology Group at the University of Pennsylvania. His team develops AI-driven protein design tools and programmable platforms for genome and cell engineering. Beyond academia, Pranam is also the co-founder of biotech startups UbiquiTx (targeted protein degradation) and Gameto (female reproductive longevity). In this episode, we explore: What sparked Pranam’s early interest in biology and protein engineering Lessons from working on PD-1 immunotherapy research as a student The promise of AI and protein language models for designing new therapies Why “programmable biology” is the future of bioengineering The challenges and opportunities of founding biotech startups Big visions for the future of biotechnology and beyond This episode is hosted by Misha (MSP student in Synthetic Biology) and Efi (Biomedical Sciences student, Maastricht University), and produced with the support of the 2025 iGEM Maastricht CoreSpin and Biomed Unleashed podcast teams. Learn more about Pranam’s work: 🔗 https://www.chatterjeelab.com/ 🔗 UbiquiTx: https://www.ubiquitx.com/ 🔗 Gameto: https://www.gametogen.com/ If you’re a student, researcher, or just curious about how AI and synthetic biology are transforming healthcare, this conversation is for you. https://static.igem.org/peertube/streaming-playlists/hls/0dd262ec-9e81-49eb-8ac3-dde45831fbe2/e24c0c51-2087-4026-b8fb-b09aba48228f-master.m3u8https://video.igem.org/videos/embed/2GZALLMMrWgeeLYLajdmkC2928082025-09-29T10:44:48.175ZYES2025 TeamsNOhttps://video.igem.org/w/jvLWdndvCd2Eix88dAy3uchttps://video.igem.org/lazy-static/thumbnails/4e45f401-45d0-4653-a525-de065065386f.jpgMSP-Maastricht: Engineering Living Materials with Peter Q. Nguyen (2025) [English]In this episode, we sit down with Peter Q. Nguyen (Wyss Institute, Jim Collins Lab) to explore how synthetic biology can turn biofilms into useful materials, embed cell-free systems into wearables (like COVID-sensing masks), and programmable probiotics as future therapeutics. We also talked about philosophy behind bioengineering, iGEM’s impact on careers, and bold ideas to tackle plastic and microplastic pollution. What you’ll learn: How philosophy, science, and art shaped Peter’s mindset BIND: Biofilm-Integrated Nanofiber Display & engineered living materials Wearable cell-free diagnostics (freeze-dried biology in fabric) Choosing fabrics that keep biology active (and why synthetics sometimes win) Programmable probiotics / engineered living therapeutics Academic outreach that actually works Translating lab tech at the Wyss Institute – from paper to product Big moonshot: ecosystem-scale solutions for plastic degradation 🔔 Subscribe for more CoreSpin content! 👍 Like & share 💬 Still have some questions for Peter or topic requests? Drop them in the comments! Hosted by Misha Bagirov, MSP student at Maastricht University.https://static.igem.org/peertube/streaming-playlists/hls/95ecc1d8-72f3-4719-babd-216d9597338b/3e7fb506-a3cb-42f1-b74e-1fd2b0a17bd2-master.m3u8https://video.igem.org/videos/embed/jvLWdndvCd2Eix88dAy3uc3517062025-09-29T13:24:22.477ZYES2025 TeamsNOhttps://video.igem.org/w/fz6gR4kvD3Mv53JTe59wbahttps://video.igem.org/lazy-static/thumbnails/39273467-a622-4c69-aaa8-02af114e7193.jpgUBC-Vancouver: Biomaterials Tutorial (2025) [English]Brief tutorial for making martian regolith alginate gels https://static.igem.org/peertube/streaming-playlists/hls/75febc41-ad19-4905-8e47-01569f0a28e5/5b489402-5455-4ba1-b231-87e0a939a4b4-master.m3u8https://video.igem.org/videos/embed/fz6gR4kvD3Mv53JTe59wba2970152025-09-29T09:26:04.418ZYES2025 TeamsNOhttps://video.igem.org/w/6Zw17E3uNJZqDMQj6gkdz9https://video.igem.org/lazy-static/thumbnails/eb97e30f-be60-43aa-8195-1c30725d0e6c.jpgShanghai-Explore: Collaborations (2025) [Chinese]https://2025.igem.wiki/shanghai-explore/https://static.igem.org/peertube/streaming-playlists/hls/308593db-6063-435a-a99d-a94366f2a5ba/7fb9e4d2-1d7a-4718-8b03-eb0b1cb130b2-master.m3u8https://video.igem.org/videos/embed/6Zw17E3uNJZqDMQj6gkdz9489012025-09-29T09:49:48.073ZYES2025 TeamsNOhttps://video.igem.org/w/v5rpuF149MdvtDcBAJ1bmThttps://video.igem.org/lazy-static/thumbnails/a5ac71b5-6ba9-47a2-a813-3168a330586d.jpgTec-Chihuahua: PHASEOS Intro Header (2025)PHASEOS Team Tec-Chihuahua 2025. Introduction to Wiki.https://static.igem.org/peertube/streaming-playlists/hls/eb77a714-4c1d-4691-86f6-6994f62ac143/14437dd1-811e-467d-b4c9-97abf9934819-master.m3u8https://video.igem.org/videos/embed/v5rpuF149MdvtDcBAJ1bmT3303132025-09-29T09:49:26.419ZYES2025 TeamsNOhttps://video.igem.org/w/nLhSiJVPM8fSQox6duJ87ghttps://video.igem.org/lazy-static/thumbnails/c7e5df35-b6de-41b3-9e77-67481420735d.jpgAFCM-Egypt: Asthma Cast (2025) [Arabic]This is an educational video about asthmahttps://static.igem.org/peertube/streaming-playlists/hls/b03f0859-0ec1-42ab-b940-3cfe7cfdfbf7/2031f592-4976-450f-8d4a-f9c510b32741-master.m3u8https://video.igem.org/videos/embed/nLhSiJVPM8fSQox6duJ87g4290132025-10-01T17:35:18.171ZYES2025 TeamsNOhttps://video.igem.org/w/vfinAevhDMpQm3wizYMh7ahttps://video.igem.org/lazy-static/thumbnails/3179df31-4f10-4f3c-aadd-4e0501bc6571.jpgAFCM-Egypt: Podcast SDG 5: Gender Equality E03 (2025) [English]Episode 3 talking about how our project will impact SDG 5 https://static.igem.org/peertube/streaming-playlists/hls/ecd823d3-8349-4f9c-96bd-1a72db04a90d/de2dee26-b6e6-49b7-99bc-9678e775693f-master.m3u8https://video.igem.org/videos/embed/vfinAevhDMpQm3wizYMh7a153522025-09-29T11:54:15.329ZYES2025 TeamsNOhttps://video.igem.org/w/5jAxEPcBG4Td1t4AAcSyH1https://video.igem.org/lazy-static/thumbnails/07ed0d48-ff42-4541-8589-4fd24f66ecbb.jpgAFCM-Egypt: SDG 11: Sustainable Cites E04 (2025) [English]Episode 4 talking about how our project will impact SDG 11, sustainable cites https://static.igem.org/peertube/streaming-playlists/hls/22fd3b74-30cd-4845-9da7-9a57f3a13f8a/45766154-61fb-4521-a03d-4bf3f545560c-master.m3u8https://video.igem.org/videos/embed/5jAxEPcBG4Td1t4AAcSyH1130022025-09-29T13:21:08.317ZYES2025 TeamsNOhttps://video.igem.org/w/dF7tiweAi3icwHMTX4VAVxhttps://video.igem.org/lazy-static/thumbnails/08bae10a-518f-4b1b-8532-db982fc1c07d.jpgAFCM-Egypt: Podcast SDG 15 Life on Land E05 (2025) [English]Episode 5 talking about SDG 15 and how our approach will impact it. https://static.igem.org/peertube/streaming-playlists/hls/66a3a89f-0203-4f02-b3fa-8706e0004201/9a24ebbe-7d98-4e37-a6e3-b44ed1889fb2-master.m3u8https://video.igem.org/videos/embed/dF7tiweAi3icwHMTX4VAVx164022025-09-29T13:29:28.634ZYES2025 TeamsNOhttps://video.igem.org/w/esebxJQUQMYgpq2NvYEYAWhttps://video.igem.org/lazy-static/thumbnails/6a92d883-8aa9-4645-a321-f6cd906f84bf.jpgAFCM-Egypt: SDG 4 Education Podcast E02 (2025) [English]Episode 2 talking about impact of our project on SDG 4 and education quality https://static.igem.org/peertube/streaming-playlists/hls/6cf043a2-c996-497e-bbd4-f69fe484bc5a/c2c7071b-d885-4c72-be47-9a76f8527c5a-master.m3u8https://video.igem.org/videos/embed/esebxJQUQMYgpq2NvYEYAW145022025-09-29T13:30:38.189ZYES2025 TeamsNOhttps://video.igem.org/w/i9L6rTZa7pPipUniyDz9dEhttps://video.igem.org/lazy-static/thumbnails/8786071d-18b8-4c82-ad8a-42f03baabfa9.jpgYiYe-china: A CRISPR/Cas9-based Knockout of TEAD4 Enhances Breast Cancer Therapy (2025) - Team Pr...**Title:** A CRISPR/Cas9-based Knockout of TEAD4 Enhances Breast Cancer Therapy **Description:** Breast cancer remains one of the most prevalent cancers and a leading cause of cancer-related deaths among women worldwide. The Hippo signaling pathway, which includes key components such as large tumor-associated kinases, and the transcriptional coactivators Yes-associated protein (YAP) and TEAD4, plays a critical role in regulating cell growth. TEAD4, a member of the TEAD family, is a transcription factor that interacts with YAP to regulate the expression of genes involved in cell proliferation, migration, and survival. Dysregulation of the Hippo pathway results in the accumulation of YAP/TEAD4, leading to abnormal gene expression that promotes tumor progression. Recent studies have identified TEAD4 as a crucial player in breast cancer development. In our research, we utilized the CRISPR-Cas9 system to design specific single guide RNAs (sgRNAs) that target and knock out TEAD4 in breast cancer cells. This genetic manipulation showed promising results in inhibiting cell proliferation, migration, and invasion. Furthermore, our bioinformatics analysis reinforced the critical role of TEAD4 in tumorigenesis. [Wiki](https://2025.igem.wiki/yiye-china) | [Official Page](https://teams.igem.org/5722)https://static.igem.org/peertube/streaming-playlists/hls/8ae47b30-db7b-4f90-a080-7cdf0ecebf36/30c3779c-1673-4b87-a570-573121d60874-master.m3u8https://video.igem.org/videos/embed/i9L6rTZa7pPipUniyDz9dE8860382025-09-29T11:42:50.499ZYES2025 PresentationsNOhttps://video.igem.org/w/g8Z6QBq6PGHPQxn6rkcDxuhttps://video.igem.org/lazy-static/thumbnails/3ce48894-597e-4ab5-8375-c2aacf6493f1.jpgBNUZH-China: Software (2025)BNUZH-China: Software (2025)https://static.igem.org/peertube/streaming-playlists/hls/7a9679cf-58b0-4f8f-a286-f8a24f36809e/5c6531c5-668c-4376-b35b-0799dd88663d-master.m3u8https://video.igem.org/videos/embed/g8Z6QBq6PGHPQxn6rkcDxu21012025-09-29T09:50:08.282ZYES2025 TeamsNOhttps://video.igem.org/w/qDuQ6knDNLBDUbmtv5kPAjhttps://video.igem.org/lazy-static/thumbnails/ec02305f-1484-4eeb-ba2f-41332daaecf9.jpgAachen: Animation (2025) [English]Short Animation to explain our project.https://static.igem.org/peertube/streaming-playlists/hls/c7979d2b-0ca4-419e-b380-ef7ea2c8a27a/5bc8537f-26ca-4762-8adc-a43c61c09a79-master.m3u8https://video.igem.org/videos/embed/qDuQ6knDNLBDUbmtv5kPAj1201052025-09-29T09:50:24.551ZYES2025 TeamsNOhttps://video.igem.org/w/ooELdzPdSHAPCgcXVHDemThttps://video.igem.org/lazy-static/thumbnails/cfbecffc-69b3-4163-8f5d-6d1cc345a96d.jpgMSP-Maastricht: Interview with Remie Herben (2025) [English]This interview with Remie Herben, head of energy central at UMC+, gives insight on how heat-exchangers work, how they are built up, where they are used, and what type of fouling can occur. The interview is a quick overview of these systems and their real-world application as a key device in thermal energy exchange systems.https://static.igem.org/peertube/streaming-playlists/hls/b5534d36-8c75-4d8c-b4cd-adb19d5d8747/b10e7391-8f02-4a92-aa80-090ff50e4904-master.m3u8https://video.igem.org/videos/embed/ooELdzPdSHAPCgcXVHDemT4420192025-09-29T12:37:12.809Zefficiencyglobal warmingheatengineeringheat-exchangersYES2025 TeamsNOhttps://video.igem.org/w/2twLtWJ2cMSUFUC7WnAWznhttps://video.igem.org/lazy-static/thumbnails/05db4ab8-ccc6-47ba-89fd-434689af264e.jpgYNNU-China: Home interface REvoDesign protein interactive design-Left-bottom (2025)We have created instructions for using the REvoDesign tool on the Home interface. https://2025.igem.wiki/ynnu-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/0bf12e65-eae5-4916-8201-5d9f2e05c207/78a51f44-fca8-49e9-a231-7290d13b85ca-master.m3u8https://video.igem.org/videos/embed/2twLtWJ2cMSUFUC7WnAWzn2032025-09-29T13:41:05.145ZREvoDesignYES2025 TeamsNOhttps://video.igem.org/w/bwJRTZjfE8Y4KRfgMgUbQNhttps://video.igem.org/lazy-static/thumbnails/767aa867-1fec-47fa-aebb-953d6146dcbd.jpgYNNU-China: Home interface REvoDesign protein interactive design-Left-Top (2025)We have created instructions for using the REvoDesign tool on the Home interface. https://2025.igem.wiki/ynnu-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/55461d00-61c0-4d79-95be-54660e6b2b66/637c59f8-3024-41ad-ab89-daf554c8cbe0-master.m3u8https://video.igem.org/videos/embed/bwJRTZjfE8Y4KRfgMgUbQN3052025-09-29T13:41:57.575ZTool Usage Tutorial VideoD-B-T-LYES2025 TeamsNOhttps://video.igem.org/w/sMZNnxt6FQsE9Yz4v6qfUZhttps://video.igem.org/lazy-static/thumbnails/2f6f765d-0f43-4fd1-adae-44dddf7e055d.jpgYNNU-China: Home interface REvoDesign protein interactive design-Right-bottom (2025)We have created instructions for using the REvoDesign tool on the Home interface. https://2025.igem.wiki/ynnu-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/d8f9b1ec-f109-49aa-9c56-5d86795aa969/55c2cb0b-9c6d-4e13-a293-f20790912ae0-master.m3u8https://video.igem.org/videos/embed/sMZNnxt6FQsE9Yz4v6qfUZ2022025-09-29T13:42:02.331ZD-B-T-LREvoDesignYES2025 TeamsNOhttps://video.igem.org/w/i9BifaZT8kKd8mUFzWi1mChttps://video.igem.org/lazy-static/thumbnails/9f15f632-c5de-45ec-a63f-56af2d02fd8a.jpgYNNU-China: Home interface REvoDesign protein interactive design-Right Top (2025)We have created instructions for using the REvoDesign tool on the Home interface. https://2025.igem.wiki/ynnu-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/8adf0f64-484a-4afe-a81a-49f18afea414/f0e7ba28-4059-4f2c-a7b5-318ea233b933-master.m3u8https://video.igem.org/videos/embed/i9BifaZT8kKd8mUFzWi1mC3022025-09-29T13:42:09.112ZProtein DesignREvoDesignYES2025 TeamsNOhttps://video.igem.org/w/fUg9RqFFA1ZxdK4C2RuCfBhttps://video.igem.org/lazy-static/thumbnails/4b458693-7815-48f3-8314-fe82f442a235.jpgAalto-Helsinki: Animation B12 detailed absorption (2025) [English]This video shows how B12 absorption works.https://static.igem.org/peertube/streaming-playlists/hls/78abf496-22b1-41de-a50f-c37bed02f5ef/57ba8929-4605-4ddf-bd38-11b64898bfc1-master.m3u8https://video.igem.org/videos/embed/fUg9RqFFA1ZxdK4C2RuCfB76002025-09-29T13:24:24.517ZYES2025 TeamsNOhttps://video.igem.org/w/prWuzDHpc4x6dspMSvXwhohttps://video.igem.org/lazy-static/thumbnails/1e2bdaca-dff2-4849-aea5-24a679e51025.jpgJLU-CP: software_iTPMP_summary (2025)JLU-CP: software_iTPMP_summary (2025)https://static.igem.org/peertube/streaming-playlists/hls/bde15da4-3cfb-42b0-93e5-522e95b3d956/12c53a61-86b3-4f14-81c3-d192f2742482-master.m3u8https://video.igem.org/videos/embed/prWuzDHpc4x6dspMSvXwho237092025-09-29T12:00:27.262ZYES2025 TeamsNOhttps://video.igem.org/w/4VZfdnKCsTXR9nv3T9CGVVhttps://video.igem.org/lazy-static/thumbnails/18f6fa39-6a9f-4f34-9ffc-6c53cbdda988.jpgDTU-Denmark: Axolotl Animation (2025)An animation mimicking the way our generative AI model, Axolotl, samples protein sequences. This video will go on our model page, as an introduction to catch the readers attention. https://2025.igem.wiki/dtu-denmark/modelhttps://static.igem.org/peertube/streaming-playlists/hls/1fd51d43-725f-4249-87f7-bad23af0ecd7/9b3014e9-cb5c-4242-bbf8-945937a23100-master.m3u8https://video.igem.org/videos/embed/4VZfdnKCsTXR9nv3T9CGVV1004482025-09-29T13:24:50.389ZYES2025 TeamsNOhttps://video.igem.org/w/orfbNxktijWoNC1AJovXxChttps://video.igem.org/lazy-static/thumbnails/324867cf-aad2-4062-9eb5-24f4a487f17f.jpgJLU-CP: software_iTPMP_modal (2025)JLU-CP: software_iTPMP_modal (2025)https://static.igem.org/peertube/streaming-playlists/hls/b5af6329-c4b1-4aa2-94c9-fa2c4705088e/fa1e18e9-4d65-49b2-a12c-0018caf76da2-master.m3u8https://video.igem.org/videos/embed/orfbNxktijWoNC1AJovXxC80112025-09-29T12:04:21.860ZYES2025 TeamsNOhttps://video.igem.org/w/tqDvS7YLPXs2Kos4hRTLU5https://video.igem.org/lazy-static/thumbnails/525b84be-4d6b-407c-921a-9cadd9c93979.jpgJLU-CP: software_iTPMP_search (2025)JLU-CP: software_iTPMP_search (2025)https://static.igem.org/peertube/streaming-playlists/hls/de17b6b3-9487-4419-977b-78c16d8c39c4/6426e380-77e2-4490-bc2e-77d79e170e0d-master.m3u8https://video.igem.org/videos/embed/tqDvS7YLPXs2Kos4hRTLU516082025-09-29T13:24:56.946ZYES2025 TeamsNOhttps://video.igem.org/w/pNE7gcf5ZwE94CSCrCqNYyhttps://video.igem.org/lazy-static/thumbnails/092b79e6-dc46-41ed-831d-c35c2406df03.jpgJLU-CP: software_iTPMP_teamfilter (2025)JLU-CP: software_iTPMP_teamfilter (2025)https://static.igem.org/peertube/streaming-playlists/hls/c0c5e331-1276-4f93-8db2-8ede65a7bfe8/2bd2b561-73e2-495c-930e-1f834317590e-master.m3u8https://video.igem.org/videos/embed/pNE7gcf5ZwE94CSCrCqNYy10032025-09-29T13:27:02.778ZYES2025 TeamsNOhttps://video.igem.org/w/cXDeyKKPMCKuAwnvmpbaHUhttps://video.igem.org/lazy-static/thumbnails/3cc1ccf7-d611-42db-978b-06c4da22bba9.jpgJLU-CP: software_iTPMP_titlebar (2025)JLU-CP: software_iTPMP_titlebar (2025)https://static.igem.org/peertube/streaming-playlists/hls/60d960f9-10af-426a-9f20-b33428f6ae02/2040bada-3a83-425e-85d3-795658f04b12-master.m3u8https://video.igem.org/videos/embed/cXDeyKKPMCKuAwnvmpbaHU4052025-09-29T13:30:16.115ZYES2025 TeamsNOhttps://video.igem.org/w/7oyQrvrKbsjVyiSaqJ9yPbhttps://video.igem.org/lazy-static/thumbnails/a7147b67-3672-4e4f-af8c-5e5634dec71e.jpgJLU-CP: software_iTPMP_visualization (2025)JLU-CP: software_iTPMP_visualization (2025)https://static.igem.org/peertube/streaming-playlists/hls/33bd6e27-97e4-42e5-8b7f-378c0bbb6650/a2a8782b-1233-4999-ada5-b6d5b3a48866-master.m3u8https://video.igem.org/videos/embed/7oyQrvrKbsjVyiSaqJ9yPb3072025-09-29T13:31:05.402ZYES2025 TeamsNOhttps://video.igem.org/w/8eMYZyZeBwxS5DnEdKFcv1https://video.igem.org/lazy-static/thumbnails/584f4bb7-034b-415e-adf6-cb1075fa309e.jpgShanghaitech-China: Left-Behind Children Care: Reigniting Innate Interest in Science in Jingxian,...https://2025.igem.wiki/shanghaitech-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/3a9cfa39-08e1-4588-b9ef-c5efbd857f66/a8e4995a-0d8a-43ed-b6c4-1e75aaf1c59d-master.m3u8https://video.igem.org/videos/embed/8eMYZyZeBwxS5DnEdKFcv11260102025-09-29T13:43:53.930Zeducationbiology experimenthands-onYES2025 TeamsNOhttps://video.igem.org/w/rbfJtA6zX9sdWm72gAZh1Uhttps://video.igem.org/lazy-static/thumbnails/29c8dd0a-e502-45fa-9249-486105ccd314.jpgPatras: Inclusivity (2025)Will be embedded as background in https://2025.igem.wiki/patrashttps://static.igem.org/peertube/streaming-playlists/hls/cbe2fbbb-42d8-4211-8c80-dcfc88547b1c/dc9d2539-1872-4048-8d3b-694e88627e89-master.m3u8https://video.igem.org/videos/embed/rbfJtA6zX9sdWm72gAZh1U3002202025-09-29T12:34:21.161ZYES2025 TeamsNOhttps://video.igem.org/w/95XjnFBSFMSCaGoBMKuUXGhttps://video.igem.org/lazy-static/thumbnails/8357c369-389d-4014-8119-baf8551bf94e.jpgPatras: Integrated Human Practices (2025)Will be embedded as background in https://2025.igem.wiki/patrashttps://static.igem.org/peertube/streaming-playlists/hls/417a2cae-de3b-4790-9237-8d00f9c9f6de/7bd6cbe7-c079-48ab-9461-974cc8700b84-master.m3u8https://video.igem.org/videos/embed/95XjnFBSFMSCaGoBMKuUXG901122025-09-29T12:59:33.441ZYES2025 TeamsNOhttps://video.igem.org/w/ifrscnDqHhsRccVjAiHyD9https://video.igem.org/lazy-static/thumbnails/cdc47193-aab3-41b6-a326-4fd36a5f0fef.jpgOUC-Haide: The jitter situation before the improved control algorithm was implemented (2025)The movement situation of the robotic arm before the control algorithm was improved: The original control algorithm was highly prone to jitter, which could easily lead to accidental injuries and waste.https://static.igem.org/peertube/streaming-playlists/hls/8baf7484-17a3-49b8-90ff-99af89ea14a2/9da33b74-c6f2-497b-a496-dd2f457cb1f9-master.m3u8https://video.igem.org/videos/embed/ifrscnDqHhsRccVjAiHyD9300132025-09-29T13:57:19.956ZThe first versionoriginalYES2025 TeamsNOhttps://video.igem.org/w/nULkJ5VeiUvxQKF2Ct5JtNhttps://video.igem.org/lazy-static/thumbnails/82421138-920b-43b9-92ef-f028be7ec2c5.jpgMSP-Maastricht: Advancing Health on Earth and in Space with Prof. Chris Mason (2025) [English]In this episode, we sit down with Prof. Chris Mason (Weill Cornell Medicine, MetaSUB, NASA Twins Study) to explore how genomics and synthetic biology are shaping the future of human health on Earth and beyond. We dive into his groundbreaking work on the NASA Twins Study, mapping the human virome and city microbiomes, and building technologies for interplanetary healthcare. We also talk about ethics in genome editing, the fight against gene patents, and Mason’s bold 500-year plan for life beyond Earth. What you’ll learn: • The moment that sparked Mason’s lifelong fascination with genetics • Key findings from the NASA Twins Study (telomeres, gene expression, microbiome shifts) • The Human Virome Project and why benign viruses matter • Swabbing subway systems with MetaSUB and microbial fingerprints of cities • BioAstra: healthcare innovation for astronauts and space missions • Why gene patents threatened scientific freedom – and how the Supreme Court changed that • The ethics of editing human genomes: the “unmet medical need” test • Chris Mason’s 500-year plan for making humanity an interplanetary species 🔔 Subscribe for more CoreSpin content! 👍 Like & share 💬 Still have questions for Chris or topic requests? Drop them in the comments! Hosted by Misha Bagirov & Denise Lemanczyk, MSP students at Maastricht University. 🔗 Bioastra: https://bioastra.org/ 🔗 The Next 500 Years: https://direct.mit.edu/books/book/512... 🔗 MetaSUB: https://metasub.org/about/ 🔗 Nurture genomics: https://nurturegenomics.com/ https://static.igem.org/peertube/streaming-playlists/hls/b16de9d8-3279-40a4-8fc3-35b02654f0c4/702320ca-1dc3-4ac3-8bb0-ea61dba4ddf6-master.m3u8https://video.igem.org/videos/embed/nULkJ5VeiUvxQKF2Ct5JtN2228042025-09-30T12:58:16.966ZYES2025 TeamsNOhttps://video.igem.org/w/6L3YisyvURzdEWo4Bu2jLahttps://video.igem.org/lazy-static/thumbnails/8a60a020-715b-4eb3-a316-00c470f7cd7a.jpgXJTLU-Software: particle (2025)An amination which has a full-color background. It will be embedded in the first page of wiki.https://static.igem.org/peertube/streaming-playlists/hls/2ea43ffc-4562-4103-90c1-f9c868240711/581ce11c-f573-4285-a867-9dd1329486de-master.m3u8https://video.igem.org/videos/embed/6L3YisyvURzdEWo4Bu2jLa503382025-09-30T13:03:42.723ZYES2025 TeamsNOhttps://video.igem.org/w/tXhEdsg4MUKZLV6CDPSF9shttps://video.igem.org/lazy-static/thumbnails/82428f41-56b8-4ad3-be48-87394adeef3d.jpgXJTLU-Software: page1-2 (2025)An animation which will be placed at page1-2 in homehttps://static.igem.org/peertube/streaming-playlists/hls/e25eeae5-95b6-4aba-a7c6-c57be12842c6/10b1cff2-66c9-472f-a2d4-ad3f4ab0204e-master.m3u8https://video.igem.org/videos/embed/tXhEdsg4MUKZLV6CDPSF9s10012025-09-30T13:32:35.397ZYES2025 TeamsNOhttps://video.igem.org/w/eTR6rNFUKE7KxxZdf1AdyXhttps://video.igem.org/lazy-static/thumbnails/060e7681-8d09-42f4-9a04-1e6c5059b4eb.jpgXJTLU-Software: page5-1 (2025)An animation which will be placed at page5-1 in homehttps://static.igem.org/peertube/streaming-playlists/hls/7083fd72-697e-4cd3-9149-f852854f0fb7/7c789d8f-808c-479d-aa82-726b66fec1f3-master.m3u8https://video.igem.org/videos/embed/eTR6rNFUKE7KxxZdf1AdyX403342025-09-30T13:36:44.196ZYES2025 TeamsNOhttps://video.igem.org/w/sLbGLGHNh5voTGpVm63G2dhttps://video.igem.org/lazy-static/thumbnails/89fd79fa-50c1-4a67-8297-040c4f26241d.jpgXJTLU-Software: page6 (2025)An animation which will be placed at page6 in homehttps://static.igem.org/peertube/streaming-playlists/hls/d8b8ed4d-72f0-4c34-bed0-6d8eecce26c6/a3260d85-536f-4e84-8245-91d41e1ecdfb-master.m3u8https://video.igem.org/videos/embed/sLbGLGHNh5voTGpVm63G2d403282025-09-30T13:44:35.857ZYES2025 TeamsNOhttps://video.igem.org/w/9by9jd7M6afRBJCUYHffVwhttps://video.igem.org/lazy-static/thumbnails/f51728c4-d2b4-46a3-b3e2-a9df134adcee.jpgUnleashing the 30 Trillion USD BioeconomyThe global bioeconomy could hit $30 trillion USD by 2030. But how do we turn this possibility into real-world impact? This session explores the strategy, policies and partnerships that drive successful biotech scaling. From synthetic biology to global market deployment, discover how to navigate the challenges and seize the opportunities shaping the future of bio-based industries. This will be a holistic look at what it takes to build a sustainable, scalable bioeconomy! In this session, we’ll cover: Key drivers of successful bioproduct scale-up. Early-stage regulatory planning to avoid costly roadblocks. Sustainable design for manufacturing and logistics. Strategic partnerships: Pilot plants, corporations and accelerators. Managing scale-up risks: Supply chains, quality control, and more.https://static.igem.org/peertube/streaming-playlists/hls/42425b24-16c8-40a3-9c8b-49a469ab3fd8/921f5342-87e6-4621-81da-74b82c4bbfb6-master.m3u8https://video.igem.org/videos/embed/9by9jd7M6afRBJCUYHffVw3721032025-09-30T09:25:36.242Z#policy#iGEM#valuechain#bioeconomyYESiGEM FoundationNOhttps://video.igem.org/w/tbuWpD3B8RhYCrtWjPU5tuhttps://video.igem.org/lazy-static/thumbnails/d1810103-1852-4ff4-88a0-cb270e056555.jpgFreezes: Staying SaneGuest Speakers: Tugba Inanc, iGEM Ambassador and former High School PIhttps://static.igem.org/peertube/streaming-playlists/hls/dc1e03e6-5b5c-45cd-9068-1adc75a0141a/3cf485ad-ad90-407e-947e-58b109a234a9-master.m3u8https://video.igem.org/videos/embed/tbuWpD3B8RhYCrtWjPU5tu1861082025-09-30T09:49:41.848Z#wikifreeze#deadlines#iGEMYESiGEM FoundationNOhttps://video.igem.org/w/2cSUbDYkW629R2rofcMGwMhttps://video.igem.org/lazy-static/thumbnails/539c72c3-a4f9-4a38-bf89-36ba1a0cb572.jpgEPFL: wiki marketing (2025)EPFL: wiki marketing (2025)https://static.igem.org/peertube/streaming-playlists/hls/09c1b02d-a2b0-44b1-be1b-4cbe6cd96f11/f534b1dd-6687-4489-b4ed-39f8f542b5a4-master.m3u8https://video.igem.org/videos/embed/2cSUbDYkW629R2rofcMGwM1103252025-09-30T09:49:46.459ZYES2025 TeamsNOhttps://video.igem.org/w/cZqT8Nfzo6KkXv7zkn9tmahttps://video.igem.org/lazy-static/thumbnails/10c7e4a0-0f2e-4947-a078-df37242b8f75.jpgBarcelona-UB: Tadpole_render (2025) [English]Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/61194106-0506-4ae0-8ff7-89202fbefa0d/5b1e7874-d902-4a9f-8ad6-85053cab942e-master.m3u8https://video.igem.org/videos/embed/cZqT8Nfzo6KkXv7zkn9tma4802072025-09-30T09:50:04.384ZYES2025 TeamsNOhttps://video.igem.org/w/muyboCpS2HhfYNCueDWDvThttps://video.igem.org/lazy-static/thumbnails/a99f37a1-19ff-4b7b-b363-7a9e81ba7ad8.jpgBarcelona-UB: RNA_Switches (2025) [English]Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/a5f36e0b-46ce-41da-873b-c2af011fdcd9/fe30f84e-5762-448a-844f-9ca54efe52da-master.m3u8https://video.igem.org/videos/embed/muyboCpS2HhfYNCueDWDvT1802842025-09-30T12:47:41.595ZYES2025 TeamsNOhttps://video.igem.org/w/kx2BKv5nyAubWDtj65cmdahttps://video.igem.org/lazy-static/thumbnails/2f0f3bea-a431-4834-a6f5-8447000da397.jpgBarcelona-UB: Parts_intro (2025) [English]Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/9e32b002-912c-423a-823b-6f0434095ea9/de08ca8a-0aa8-4351-bb36-7ab6bf1b01ac-master.m3u8https://video.igem.org/videos/embed/kx2BKv5nyAubWDtj65cmda2201862025-09-30T13:04:27.448ZYES2025 TeamsNOhttps://video.igem.org/w/8ZfK8ZigT1sLctfbrqrWuVhttps://video.igem.org/lazy-static/thumbnails/18eb9320-b332-4377-b39d-f50047ad1af0.jpgFHS-NB-ZJ-China: LabUpdates (2025)Our lab is being renovated.https://static.igem.org/peertube/streaming-playlists/hls/40ae73a0-b6c7-4cb3-9954-189662811aad/0501b215-e719-4995-a1b8-b08cf993c96e-master.m3u8https://video.igem.org/videos/embed/8ZfK8ZigT1sLctfbrqrWuV14032025-09-30T13:32:42.716ZYES2025 TeamsNOhttps://video.igem.org/w/gFPLCni2f8NvTRPcAeGo4Jhttps://video.igem.org/lazy-static/thumbnails/0c2c9b06-4ae8-4d43-86ba-31fa089fee18.jpgYale: 60SS Episode 0 (2025) [English]60 Second Scientist - Episode 0 https://2025.igem.wiki/yalehttps://static.igem.org/peertube/streaming-playlists/hls/7f0886a0-96dd-42c7-abaa-b11bf4d2e680/e9019df0-8e9c-451b-bab3-d370b6a1dae1-master.m3u8https://video.igem.org/videos/embed/gFPLCni2f8NvTRPcAeGo4J9901102025-09-30T09:26:37.836ZsynbioYES2025 TeamsNOhttps://video.igem.org/w/wbYTfEQQU5xAjJsKtHpyfqhttps://video.igem.org/lazy-static/thumbnails/bfc92d27-e18e-4215-b1fb-353cc9d5f9f4.jpgYale: 60SS Episode 1.1 (2025) [English]60 Second Scientist - Episode 1.1 https://2025.igem.wiki/yalehttps://static.igem.org/peertube/streaming-playlists/hls/f47aa73f-2a28-40a2-8570-e35bab7d9c8c/484f1d72-6a4c-44b3-b5ca-5d273606c538-master.m3u8https://video.igem.org/videos/embed/wbYTfEQQU5xAjJsKtHpyfq101062025-09-30T09:53:33.131ZsynbioYES2025 TeamsNOhttps://video.igem.org/w/fpyZYfY7oS6Ws2jhYwXjTchttps://video.igem.org/lazy-static/thumbnails/891f9f13-5a5d-4b07-bd1a-4a814843813e.jpgYale: 60SS - Episode 1.2 (2025) [English]60 Second Scientist - Episode 1.2 https://2025.igem.wiki/yalehttps://static.igem.org/peertube/streaming-playlists/hls/74aa6275-5cdf-48f9-81e1-1e37d032df99/60734df4-6b6a-4982-8086-b50dab7704f5-master.m3u8https://video.igem.org/videos/embed/fpyZYfY7oS6Ws2jhYwXjTc214052025-09-30T12:54:37.176ZsynbioYES2025 TeamsNOhttps://video.igem.org/w/2s9uDDPLfyWiQUGuagjvGThttps://video.igem.org/lazy-static/thumbnails/a6d8bc2b-48ac-4e60-abf0-b361d97460b7.jpgYale: 60SS - Episode 2 (2025) [English]60 Second Scientist - Episode 2 https://2025.igem.wiki/yalehttps://static.igem.org/peertube/streaming-playlists/hls/0bbfb615-5c96-4100-91ad-37fe3a851eb7/f5692400-5ce8-4545-a282-a1327868783e-master.m3u8https://video.igem.org/videos/embed/2s9uDDPLfyWiQUGuagjvGT137022025-09-30T13:10:35.212ZsynbioYES2025 TeamsNOhttps://video.igem.org/w/uK9SevtnxDJ5cMutkvfJVmhttps://video.igem.org/lazy-static/thumbnails/6eb81323-6aa8-4c40-aeb3-cee34da475ea.jpgToronto: NEST Hatchery Wow Factor (2025) [English]Description: this is a video we want to add in our appendix, it's a demonstration video we made while at our school's incubator when developing our entrepreneurship section. This video simply describes our business proposal via animation video. Category: Science & Technology/Entrepreneurship License: University of Toronto Entrepreneurship Team Language: English Privacy: Public Contain sensitive content: No Publish after transcoding: Yeshttps://static.igem.org/peertube/streaming-playlists/hls/e8c65419-2002-4381-bfb2-d5de6db1419e/d7bea450-814f-4bf7-a19e-c478bb830922-master.m3u8https://video.igem.org/videos/embed/uK9SevtnxDJ5cMutkvfJVm640132025-09-30T09:26:33.681Zantibiotic resistance AIphage therapyEntrepreneurshipYES2025 TeamsNOhttps://video.igem.org/w/24gehGkJmzq8sRG7CB22BNhttps://video.igem.org/lazy-static/thumbnails/283c2ce0-2a13-427b-94c4-daf52c6063af.jpgSCUT-CHINA-L: Software AI Agent Operation Demonstration Step1 (2025)It shows how you can use ai agent to operate our software. It is the Step1.https://static.igem.org/peertube/streaming-playlists/hls/088dc157-349a-4794-a24e-2b2f4ecbcd98/ebaf8209-b35a-423a-aa38-16fbac8cf56c-master.m3u8https://video.igem.org/videos/embed/24gehGkJmzq8sRG7CB22BN30092025-09-30T09:26:44.780ZYES2025 TeamsNOhttps://video.igem.org/w/6XdQGhsaoyVbLLb3Sf2z8Mhttps://video.igem.org/lazy-static/thumbnails/8381a97f-d1d7-499b-b64c-5d52d50cfe04.jpgYale: Part 1 - Howrah, India Submission (2025) [English]Our 'You Are What you Fund (YAWF)' Submission from Howrah, India. https://2025.igem.wiki/yalehttps://static.igem.org/peertube/streaming-playlists/hls/30338368-5336-44fe-ad63-a690a7fce72f/d2f9d271-336e-46b5-9bcf-dd59a539c693-master.m3u8https://video.igem.org/videos/embed/6XdQGhsaoyVbLLb3Sf2z8M837022025-09-30T13:36:50.530ZsynbioYES2025 TeamsNOhttps://video.igem.org/w/wVsnfyu89PbjUfN5bo8ZPnhttps://video.igem.org/lazy-static/thumbnails/59a5b961-57b9-4f6b-a4a4-72ece4e73a31.jpgHiZJU-China: Adhesion and Rinse Experiment Operation of CMC-SH Hydrogel Experimental Group and Bl...Through a simple running water rinsing experiment, we observed that in both types of plates, bacteria in the agar areas without hydrogel coating were easily rinsed off. In contrast, the CMC-SH coating and the bacteria adhering to its surface were much harder to be rinsed off compared with the CMC coating, showing little difference from the unwashed ones. From this, we preliminarily concluded that thiol-modified CMC is capable of enhancing its adhesive capacity to bacterial cells, even for bacteria not obviously embedded, which is conducive to the long-term colonization of engineered bacteria in the intestine.https://static.igem.org/peertube/streaming-playlists/hls/fa68d417-3770-47fa-9a5b-9d8ff93f6077/f0df5e5a-fd31-4b6c-9545-30a7d3de848f-master.m3u8https://video.igem.org/videos/embed/wVsnfyu89PbjUfN5bo8ZPn970102025-09-30T09:27:49.881ZYES2025 TeamsNOhttps://video.igem.org/w/sTJF4YfUyVrnuxqeago2m6https://video.igem.org/lazy-static/thumbnails/d02edeec-5bc8-4ef0-b209-a0d26966ad67.jpgYale: Kazakhstan (2025) [English]Our 'You Are What you Fund (YAWF)' submission from Kazakhstan! https://2025.igem.wiki/yale https://static.igem.org/peertube/streaming-playlists/hls/d9c6d601-e453-4d95-987a-3cbf5cbf07f1/bbfa65f8-9346-42a1-95ec-c4c131625857-master.m3u8https://video.igem.org/videos/embed/sTJF4YfUyVrnuxqeago2m6142082025-09-30T13:43:32.409ZsynbioYES2025 TeamsNOhttps://video.igem.org/w/8qSk18YJnu9VxvpQjjNcaUhttps://video.igem.org/lazy-static/thumbnails/a8e4b53e-0a64-47ce-b869-3449d1e0732f.jpgSCUT-CHINA-L: Software AI Agent Operation Demonstration Step2 (2025)It shows how you can use ai agent to operate our software. It is the Step2.https://static.igem.org/peertube/streaming-playlists/hls/3c28d62b-8e78-4425-81ce-0bc111088ada/71911712-d119-4ceb-9f5f-cddee4ede94a-master.m3u8https://video.igem.org/videos/embed/8qSk18YJnu9VxvpQjjNcaU21032025-09-30T09:53:40.144ZYES2025 TeamsNOhttps://video.igem.org/w/6t3aHV4FHPjXQQNTBFTSAkhttps://video.igem.org/lazy-static/thumbnails/836e7991-7411-407d-86ac-f5837ac357ed.jpgSCUT-CHINA-L: Software AI Agent Operation Demonstration Step3 (2025)It shows how you can use ai agent to operate our software. It is the Step3.https://static.igem.org/peertube/streaming-playlists/hls/2c441c66-9d68-49aa-9474-165f46244ed7/9638076f-22da-4c75-b843-b7d65b0eb813-master.m3u8https://video.igem.org/videos/embed/6t3aHV4FHPjXQQNTBFTSAk27022025-09-30T12:54:45.486ZYES2025 TeamsNOhttps://video.igem.org/w/9pjbaqfw4TE7mxSesmVGPLhttps://video.igem.org/lazy-static/thumbnails/88a4a02b-6250-45e8-af81-ea4b489fd173.jpgSCUT-CHINA-L: Software AI Agent Operation Demonstration Step4 (2025)It shows how you can use ai agent to operate our software. It is the Step4.https://static.igem.org/peertube/streaming-playlists/hls/440a6ab7-8bae-4b5f-993c-65572758777a/f6d65e7f-bc65-4f36-b81f-20eccd667dae-master.m3u8https://video.igem.org/videos/embed/9pjbaqfw4TE7mxSesmVGPL20032025-09-30T13:10:41.893ZYES2025 TeamsNOhttps://video.igem.org/w/uYZvqUM8ruBK5bkqUfZXgohttps://video.igem.org/lazy-static/thumbnails/2f2f63ca-c8e3-445b-84b9-96469939a875.jpgSCUT-CHINA-L: Software AI Agent Operation Demonstration Step5 (2025)It shows how you can use ai agent to operate our software. It is the Step5.https://static.igem.org/peertube/streaming-playlists/hls/eab4f94a-c51e-4c59-bd7e-30741962f800/c96d215f-02e6-441a-a8d8-5ba515208740-master.m3u8https://video.igem.org/videos/embed/uYZvqUM8ruBK5bkqUfZXgo25012025-09-30T13:33:29.121ZYES2025 TeamsNOhttps://video.igem.org/w/fBTSxwHpcQtKHduFK5khCAhttps://video.igem.org/lazy-static/thumbnails/08729e74-3f36-490c-82f7-74c218da7920.jpgXJTLU-CHINA: Hardware Experiment Demonstration (2025)The process of physical hardware experiments, this video will be used on https://2025.igem.wiki/xjtlu-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/7662f0aa-7e84-440e-aa74-eaea15a49562/75a0b0df-8b3d-4e89-b6ff-c3c512f8fc56-master.m3u8https://video.igem.org/videos/embed/fBTSxwHpcQtKHduFK5khCA1901152025-09-30T13:33:48.347ZYES2025 TeamsNOhttps://video.igem.org/w/6r1NN7AxiCWV8ePFPgDrWUhttps://video.igem.org/lazy-static/thumbnails/d86eb61e-b092-47ae-a764-6346cf69aaf6.jpgAalto-Helsinki: What is Synthetic Biology? (2025) [English]🧬What happens when biology meets engineering? Spoiler: It’s not a sci-fi movie... or is it? 👀 🎨 Drawings & videography: Polina Gavrilyuk 🗣 Writer & narrator: Karya Ipek Körükcü 🖼️ Soundtrack & Stock Footage: Canva Pro materialhttps://static.igem.org/peertube/streaming-playlists/hls/2bfbc8e6-5ea8-4b26-897a-c713663f214c/a9694728-186d-494a-b6ba-4ec918682dbd-master.m3u8https://video.igem.org/videos/embed/6r1NN7AxiCWV8ePFPgDrWU430782025-09-30T09:30:05.992ZYES2025 TeamsNOhttps://video.igem.org/w/ebxtH2EMdNs8aP7ZwPaDdvhttps://video.igem.org/lazy-static/thumbnails/c71e9485-16d3-4328-ac1f-d4acf02eb386.jpgAalto-Helsinki: The Design-Build-Test-Learn Cycle (2025) [English]DBTL? Sounds like a pop band or... a secret agent agency? Nah, it’s how we actually engineer life! 🎨 Drawings & videography: Polina Gavrilyuk 🗣 Writer & narrator: Karya Ipek Körükcü 🖼️ Soundtrack & Stock Footage: Canva Pro materialhttps://static.igem.org/peertube/streaming-playlists/hls/6abfa39c-b928-4323-bb13-68fc278e4b61/09908518-d38a-404d-a318-142b8955a086-master.m3u8https://video.igem.org/videos/embed/ebxtH2EMdNs8aP7ZwPaDdv770882025-09-30T10:05:14.635ZYES2025 TeamsNOhttps://video.igem.org/w/fdkBZgb1M6XBtK4dtzzJ4Shttps://video.igem.org/lazy-static/thumbnails/c707e9fd-8d7d-4bd4-93a3-29545e1237f8.jpgAalto-Helsinki: Plasmids = the USB drives of biology! 💾🧬 (2025) [English]Just like you drag & drop files onto a USB stick, scientists “load” genes onto plasmids✨ If you could program any new ability into a cell… what would it be? Tell us below! ⬇️ 🎨 Drawings: Polina Gavrilyuk 🚀Videography: Wenjun Huang 🗣 Writer & narrator: Karya Ipek Körükcü 🖼️ Soundtrack & Stock Footage: Canva Pro material https://static.igem.org/peertube/streaming-playlists/hls/7318f541-12ee-42aa-9074-97bd8cf28660/74959d12-cf38-433e-874d-3306331d27a7-master.m3u8https://video.igem.org/videos/embed/fdkBZgb1M6XBtK4dtzzJ4S560832025-09-30T12:58:22.064ZYES2025 TeamsNOhttps://video.igem.org/w/1mY8GSnm85xrG57HDz16Tnhttps://video.igem.org/lazy-static/thumbnails/e389f0ab-18f8-4c82-a44e-b2764ef0ba21.jpgAalto-Helsinki: What happens if your body can’t absorb B12? ❌💊 (2025) [English]Learn in the video! 🎨 Drawings & videography: Polina Gavrilyuk 🗣 Writer & narrator: Veronika Koukharenko 🖼️ Soundtrack & Stock Footage: Canva Pro materialhttps://static.igem.org/peertube/streaming-playlists/hls/02ed77ef-030d-46f1-8ac4-d56588b30bc7/205a317b-d29a-4c71-b8dc-3937db276a22-master.m3u8https://video.igem.org/videos/embed/1mY8GSnm85xrG57HDz16Tn560802025-09-30T13:27:34.587ZYES2025 TeamsNOhttps://video.igem.org/w/iHZqkqbcKH2ebKRjjWd47ohttps://video.igem.org/lazy-static/thumbnails/51cce6dc-d1b8-4b06-b0ea-8fa5af2ac97e.jpgAalto-Helsinki: So who has B12 deficiency? 💭 (2025) [English]Is it a small problem, or a larger one?🤔 🎨 Drawings & videography: Polina Gavrilyuk 🗣 Writer & narrator: Veronika Koukharenko 🖼️ Soundtrack & Stock Footage: Canva Pro materialhttps://static.igem.org/peertube/streaming-playlists/hls/8f883ce4-00f5-425e-b69c-23313dfcf75e/c9e1c3fa-e969-4546-afc8-875dc6f672b0-master.m3u8https://video.igem.org/videos/embed/iHZqkqbcKH2ebKRjjWd47o640802025-09-30T13:36:36.248ZYES2025 TeamsNOhttps://video.igem.org/w/rcS8GWYU2fh7JjE5LnVazMhttps://video.igem.org/lazy-static/thumbnails/e9057b06-79b1-46a6-949c-35689ac724c7.jpgAalto-Helsinki: Chassis (2025) [English]Here, everything starts with a chassis – just like a car frame, but for synthetic biology! 🎨 Drawings: Polina Gavrilyuk 🚀Videography: Wenjun Huang 🗣 Writer & narrator: Karya Ipek Körükcü 🖼️ Soundtrack & Stock Footage: Canva Pro materialhttps://static.igem.org/peertube/streaming-playlists/hls/cc1c8b1f-206e-4368-ae69-9cf0d7b2c803/b9ad2d4f-2078-44e5-b3e8-bcd075a24398-master.m3u8https://video.igem.org/videos/embed/rcS8GWYU2fh7JjE5LnVazM530782025-09-30T13:44:13.069ZYES2025 TeamsNOhttps://video.igem.org/w/jRre41n76dPwD8aXdFCvJEhttps://video.igem.org/lazy-static/thumbnails/67db64dc-ca71-4efa-be6b-9d476d922594.jpgAalto-Helsinki: 💊 Why Pills Don’t Work for Pernicious Anemia (2025) [English]When your body attacks its own vitamin B12 helper, Intrinsic Factor, even supplements can’t save the day. That’s why many patients rely on lifelong injections. 💉 🎨 Drawings & videography: Polina Gavrilyuk 🗣 Writer & narrator: Veronika Koukharenko 🖼️ Soundtrack & Stock Footage: Canva Pro material https://static.igem.org/peertube/streaming-playlists/hls/98ab7c70-40f5-4041-84f0-a30ec574448e/00c932b8-ab81-4d7f-a8b3-14b9ab6ad5a5-master.m3u8https://video.igem.org/videos/embed/jRre41n76dPwD8aXdFCvJE580782025-09-30T13:47:19.874ZYES2025 TeamsNOhttps://video.igem.org/w/t8q1n83Wx9aJZY11aPxoxDhttps://video.igem.org/lazy-static/thumbnails/020a9950-d776-4b95-98d9-e6c483fdcb27.jpgAalto-Helsinki: How does B12 get absorbed? (2025) [English]Learn about vitamin B12 absorption! 🎨 Videography: Jasmin Haltilahti 🗣 Writer & narrator: Jasmin Haltilahti 🖼️ Pictures & Illustrations: Canva Pro material and https://www.biorender.com/https://static.igem.org/peertube/streaming-playlists/hls/dbafbe9e-6872-496d-b07d-e40fe4902dab/a69160cc-d82f-4a4f-b3c6-c6da6fbb74b6-master.m3u8https://video.igem.org/videos/embed/t8q1n83Wx9aJZY11aPxoxD7601022025-09-30T13:48:42.370ZYES2025 TeamsNOhttps://video.igem.org/w/6g1DhAE8egWNGDVbGTtQMxhttps://video.igem.org/lazy-static/thumbnails/24f919e6-3630-4a24-8c8d-48339b30fbed.jpgAalto-Helsinki: 🎤✨ Practice makes perfect, and it’s even better with friends! (2025) [English]Our Aalto-Helsinki iGEM team spent the day in Turku with the amazing ABOA iGEM team, sharing project updates, practicing presenting our projects, and getting expert feedback from public speaking pro Kelly Raita and ABOA’s 2024 team leader Tommi Riihinen. After much cherished feedback and a debrief sesh we recorded an episode for the ABOA Archives podcast, where we chatted about our projects, iGEM journeys, and what’s next! 🎙 Big thanks to team ABOA for hosting us and filling the day with learning, inspiration and tortillas <3https://static.igem.org/peertube/streaming-playlists/hls/2a963efb-ca5b-4ca3-a777-32e819009679/a4d885ba-2dd7-48a9-a4f3-6d7f6bf08d2e-master.m3u8https://video.igem.org/videos/embed/6g1DhAE8egWNGDVbGTtQMx29032025-09-30T13:50:32.466ZYES2025 TeamsNOhttps://video.igem.org/w/2Pt4cgh8dRBvNqt19MbAX9https://video.igem.org/lazy-static/thumbnails/0e1f20ac-8449-4cc3-a7de-6bfc0aa91552.jpgAalto-Helsinki: Highlights from our trip to Nordic iGEM Conference 🫶✨️ (2025) [English]From 15th to 17th of August, our team had the privilege of joining the Nordic iGEM Conference 2025! ✨ It was an inspiring and fun experience from the very beginning, starting with the keynote by the CEO of iGEM and a science communication workshop, followed by well-planned social activities that helped us connect with so many wonderful teams. Soon after, we presented our project posters and we are especially honored to have won the Best Poster Presentation together with iGEM Aboa! 🌟 What a fun and inspiring time we had there. 🥺 https://static.igem.org/peertube/streaming-playlists/hls/0eb9c4e5-c075-4e5b-862e-82dc33490526/b256a1f6-d911-4649-84ba-9c7fec56cb8f-master.m3u8https://video.igem.org/videos/embed/2Pt4cgh8dRBvNqt19MbAX922062025-09-30T13:50:42.559ZYES2025 TeamsNOhttps://video.igem.org/w/ktNs75SHFubEiueGNcCXqjhttps://video.igem.org/lazy-static/thumbnails/89aba8b7-1a8e-40f6-b267-dce4807c53f2.jpgSMBU: Interview with Zhou Jianwei, Director of Infectious Diseases Department at Liling CDC (2025...We met with Professor Zhou Jianwei (周建伟), Director of Infectious Diseases Department at Liling CDC and senior physician, to learn from his clinical experience. https://2025.igem.wiki/smbu/https://static.igem.org/peertube/streaming-playlists/hls/9dbf579b-2aea-4d59-aa94-70559d55b8ce/a29dac9d-6ca0-45bd-a07f-edb42c1452af-master.m3u8https://video.igem.org/videos/embed/ktNs75SHFubEiueGNcCXqj244012025-09-30T09:34:27.097ZYES2025 TeamsNOhttps://video.igem.org/w/9jZEAnatUeWZA9umu6atKshttps://video.igem.org/lazy-static/thumbnails/7b40bc40-84b7-428d-9781-48893b1b3838.jpgHBUT-China: Sustainable Development (2025) [Chinese]The promotional video of NRPShttps://static.igem.org/peertube/streaming-playlists/hls/437008e1-f5bf-48d8-b9e4-d177e802d9dc/70864924-ba87-445f-9195-869a79cb7ee2-master.m3u8https://video.igem.org/videos/embed/9jZEAnatUeWZA9umu6atKs133032025-09-30T09:38:25.421ZYES2025 TeamsNOhttps://video.igem.org/w/twuJVvbhJgzYwZeLQmghUMhttps://video.igem.org/lazy-static/thumbnails/41dc5899-ec83-4c37-8072-92b83c726940.jpgEPFL: Burn Test Demo- Wood Coated with Cellulose–Chitosan–Silica–Cell Lysate Gel (2) (2025)This video shows the setup of our burn test. A wood piece is held by a clamp on a support rod and exposed to flame. Half of the wood surface is coated with a gel composed of cellulose, chitosan, silica, and cell lysate.https://static.igem.org/peertube/streaming-playlists/hls/dee8c4c2-fbdf-402b-a659-c289fe2eb24d/7d6e2bd2-f435-4aec-a58f-807f2600c7ac-master.m3u8https://video.igem.org/videos/embed/twuJVvbhJgzYwZeLQmghUM80772025-09-30T12:58:26.977ZYES2025 TeamsNOhttps://video.igem.org/w/vGoWNXYDjT8fefcq5wsCXDhttps://video.igem.org/lazy-static/thumbnails/cac14476-a04b-44ca-8d61-3daac4eae04c.jpgIonis-Paris: Education (2025)Ionis-Paris: Education (2025)https://static.igem.org/peertube/streaming-playlists/hls/f07ce98c-34a8-4bf6-a755-4cbfd91f159b/f59acef7-3693-4687-979a-128abc3cf9c1-master.m3u8https://video.igem.org/videos/embed/vGoWNXYDjT8fefcq5wsCXD430232025-09-30T10:05:24.305ZYES2025 TeamsNOhttps://video.igem.org/w/vCgMps1cWMLSD2vzH75zEVhttps://video.igem.org/lazy-static/thumbnails/33b1fa4b-cb78-42ba-b88e-da68a467551a.jpgSMBU: Interview with Vasilieva N. S., Head of the Hepatology Center (2025) [Russian]We visited SM-Clinic and spoke with Vasilieva Natalia Sergeevna, Head of the Hepatology Center. https://2025.igem.wiki/smbu/https://static.igem.org/peertube/streaming-playlists/hls/efe985fb-f439-4c91-8f72-2ebc0caf01d5/a2219097-9936-4752-845b-5ca5520df6cd-master.m3u8https://video.igem.org/videos/embed/vCgMps1cWMLSD2vzH75zEV546022025-09-30T11:50:29.905ZYES2025 TeamsNOhttps://video.igem.org/w/ruWeTdzoTRrv9gEdHz6F4Phttps://video.igem.org/lazy-static/thumbnails/6a2e10b0-e6c3-402d-a0da-f3ef8bbcf315.jpgLeiden: R Studio 101 (2025) [English]Have you ever stood by a professor's presentation while he talked about R Studio and did not understand anything they were saying? Have you ever wanted to learn how to code but not even know where to start? This is what our video about R Studio 101 is! You can learn the basics on how to understand R studio and how to start exploring it to use it for your project too! This is a video from the series of our educational videos (2/?)https://static.igem.org/peertube/streaming-playlists/hls/ce7eb7df-8b75-471e-812c-f8a0fff48ed1/501f0687-c928-4486-ae19-67c138f4abb5-master.m3u8https://video.igem.org/videos/embed/ruWeTdzoTRrv9gEdHz6F4P386532025-09-30T11:32:07.286ZYES2025 TeamsNOhttps://video.igem.org/w/cvsaRwPd31g2YTtEuYsiYDhttps://video.igem.org/lazy-static/thumbnails/3d9137c3-65c1-43b0-8fd1-9ac06e2c4b5e.jpgSHSID: lab visit (2025)SHSID: lab visit (2025)https://static.igem.org/peertube/streaming-playlists/hls/5d3138ec-af4f-4d8c-b1d8-0e3b25cd3549/520fff1d-0bc7-4137-93dd-69c100a598de-master.m3u8https://video.igem.org/videos/embed/cvsaRwPd31g2YTtEuYsiYD70082025-09-30T13:51:22.309ZYES2025 TeamsNOhttps://video.igem.org/w/3Uc5w1MBmddWo65goU2bNShttps://video.igem.org/lazy-static/thumbnails/f44d6cdf-8d42-4810-b119-d570c27a342a.jpgLeiden: Alpha Fold and Pymol 101 (2025) [English]Have you ever looked at a paper full of protein structures and wished you could do the same for the proteins in your project? Now you can! With this basic explanation on how to use Alpha Fold and Pymol to make 3D protein structures, you can learn all the basics and start making beautiful images. Video number 3/? from our series of educational videos.https://static.igem.org/peertube/streaming-playlists/hls/177bc7c5-1069-40ca-b9eb-4596ee8acbee/529fa271-e330-4ee6-9156-185b87ba8777-master.m3u8https://video.igem.org/videos/embed/3Uc5w1MBmddWo65goU2bNS305562025-09-30T12:12:41.891ZYES2025 TeamsNOhttps://video.igem.org/w/mTfMrRkP9tGCMxw3zCiQGmhttps://video.igem.org/lazy-static/thumbnails/9b1369ac-0394-4593-bcc2-5eaaef469bc8.jpgSHSID: Brief Introduction to Synthetic Biology (2025) [English]SHSID: Brief Introduction to Synthetic Biology (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/a91ed0ef-7914-4eb5-8d8f-0e51529fd4ec/5a88b478-7c12-412a-a812-05a53c443710-master.m3u8https://video.igem.org/videos/embed/mTfMrRkP9tGCMxw3zCiQGm95042025-09-30T13:51:19.992ZYES2025 TeamsNOhttps://video.igem.org/w/5LoBc6RpW5bv5qMWYjHdHKhttps://video.igem.org/lazy-static/thumbnails/5ca625ab-f5ef-44f2-9dd8-b46c8a74f88b.jpgSHSID: Common Synthetic Biology Methods (2025) [English]SHSID: Common Synthetic Biology Methods (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/26973661-6368-409b-b380-890cedf00bad/a4a55a4f-db85-4d52-9aa4-e6e700fda8fd-master.m3u8https://video.igem.org/videos/embed/5LoBc6RpW5bv5qMWYjHdHK109022025-09-30T13:51:48.283ZYES2025 TeamsNOhttps://video.igem.org/w/5sSfhPE5UBDFGa57ypDCaehttps://video.igem.org/lazy-static/thumbnails/9d60295d-dcdc-4142-9cce-87c4c2ca9784.jpgSHSID: Intro to E. Coli (2025) [English]SHSID: Intro to E. Coli (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/2424dbab-e64b-4c44-95f3-0b92e8a5ffdf/cc5ff299-704c-4368-b846-751e79a846d8-master.m3u8https://video.igem.org/videos/embed/5sSfhPE5UBDFGa57ypDCae95032025-09-30T13:51:55.004ZYES2025 TeamsNOhttps://video.igem.org/w/p59HkJhJMwh9P9TF7LGVerhttps://video.igem.org/lazy-static/thumbnails/3fa3d252-3cf5-4ca1-8878-c0aaad99b2d3.jpgSMBU: Interview with Wang Chunmei, Head of the Immunization Planning Division (2025) [Chinese]We met with Wang Chunmei (汪春梅), Head of the Immunization Planning Division and associate chief physician, to learn about vaccination practices and policies. https://2025.igem.wiki/smbu/https://static.igem.org/peertube/streaming-playlists/hls/bad6889f-e360-45b7-b4f4-362f08b72b7f/ee12c73c-a75b-4420-b43e-aefa3e54fff9-master.m3u8https://video.igem.org/videos/embed/p59HkJhJMwh9P9TF7LGVer274002025-09-30T13:03:40.949ZYES2025 TeamsNOhttps://video.igem.org/w/5zKdV918a1cPib577qX1Aehttps://video.igem.org/lazy-static/thumbnails/ed4d3583-9423-40b3-8256-23d6a7e0c989.jpgIISER-Berhampur: IGNITING YOUNG MINDS - Outreach Activity (2025) [English]This video is an original short visual presentation of how we spread awareness about our project to the students of Kendra Vidyalaya (school), Berhampur, conducted on July 14, 2025. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright & Creation Information : Event team: Ananya A Prajna S Panda Sampurna R Subrat M Diptendu S Videographer: Diptendu S Editor: Diptendu S Background music: Capcut free to use music (copyright-free)https://static.igem.org/peertube/streaming-playlists/hls/251abc69-3b40-4e26-9c3a-3cfc8a1b6919/62563499-1258-4731-bae7-7f72e5c93844-master.m3u8https://video.igem.org/videos/embed/5zKdV918a1cPib577qX1Ae39042025-09-30T12:02:39.756ZYES2025 TeamsNOhttps://video.igem.org/w/6tvoTSyJh9F29S52dYqwRvhttps://video.igem.org/lazy-static/thumbnails/cf20a44e-35f9-4de1-9fbf-2c27e38d2b47.jpgIISER-Berhampur: YOUNG MINDS - BIG IDEAS - Outreach Activity (2025) [English]This video is an original short presentation of how we spread awareness about our project to the students of different schools of Berhampur, at the event of STREAM, a science outreach event hosted by IISER Berhampur, conducted on August 30, 2025. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright & Creation Information : Event team: Ananya A Prajna S Panda Sampurna R Subrat M Diptendu S Aseel A Swastik S Sahoo Videographer: Diptendu S Editor: Diptendu S Background music: Capcut free to use music (copyright-free)https://static.igem.org/peertube/streaming-playlists/hls/2c54e3e6-8102-424a-bc54-4964fee9366f/d3775535-30bf-486d-8f2c-63c107cf7444-master.m3u8https://video.igem.org/videos/embed/6tvoTSyJh9F29S52dYqwRv50002025-09-30T12:21:09.697ZYES2025 TeamsNOhttps://video.igem.org/w/7TsHw64tqPe8GihiLEqZ5Dhttps://video.igem.org/lazy-static/thumbnails/8bca0cba-653b-4659-9e43-0b3f4f751833.jpgLeiden: Snap Gene 101 (2025) [English]Have you ever considered how scientists work with DNA sequences without getting tired of boring text files filled with A, G, T and Cs? Now you know! Snap Gene is a tool very used and very useful for DNA analysis. Now you know all the basics for using it yourself. Start analysing your constructs TODAY! Video 4/? in our educational video sequence.https://static.igem.org/peertube/streaming-playlists/hls/37c63a7b-cd87-438f-9cde-09db77d6f0f1/f4073cd4-c065-423e-b48d-24706925ae48-master.m3u8https://video.igem.org/videos/embed/7TsHw64tqPe8GihiLEqZ5D364542025-09-30T13:32:25.994ZYES2025 TeamsNOhttps://video.igem.org/w/3qYHjUPLiQDZhjWT2fL9Uyhttps://video.igem.org/lazy-static/thumbnails/0656bca4-ba35-4a15-b6aa-aa6500c98d11.jpgGU-Frankfurt: Farming Forward - E1 What are GMOs? (2025) [English]The first installment in our Farming Forward video series covers the topic of GMO basic. We discuss what makes a GMO and how this differs from conventional plant breeding methods. We also discuss some of the reasons behind the use of GMO in agriculture, what advantages they present and how selective breeding is not a novel concept. https://static.igem.org/peertube/streaming-playlists/hls/13af1400-6545-43f5-9558-8475a84c1428/000f0f4d-ce03-4d8f-b164-b4ed65209f19-master.m3u8https://video.igem.org/videos/embed/3qYHjUPLiQDZhjWT2fL9Uy2070172025-09-30T19:13:45.290ZYES2025 TeamsNOhttps://video.igem.org/w/e2pWHswMVU24Y4Cr5bsrW8https://video.igem.org/lazy-static/thumbnails/22664125-fcb9-4c8c-88ad-a56ed38f5a4f.jpgBrno Czech Republic: Soybean growth timelapse (2025)Soybean growth timelapse Stock video licensed by Matej Zámečník (iGEM Brno Team Member) via Adobe Stock – Extended License.https://static.igem.org/peertube/streaming-playlists/hls/69794d4d-d240-47f0-9c72-6f6743625337/268c5612-d050-478c-979d-38ed4fd662cd-master.m3u8https://video.igem.org/videos/embed/e2pWHswMVU24Y4Cr5bsrW85082025-09-30T14:57:24.183ZYES2025 TeamsNOhttps://video.igem.org/w/jNBGw13sQjoNsfM4xAjyKKhttps://video.igem.org/lazy-static/thumbnails/28e61639-d55e-4fab-a56f-e7fe658ff6d1.jpgBrno Czech Republic: Duckweed growth timelapse (2025)Video created by Matej Zámečník (iGEM Brno Team Member) and Martin Grec. Usage permitted within iGEM Brno activities.https://static.igem.org/peertube/streaming-playlists/hls/9846b596-7945-45ca-9dec-1ab36c1ce4f9/cd27467c-f554-4aa0-a010-e35b36ae3d13-master.m3u8https://video.igem.org/videos/embed/jNBGw13sQjoNsfM4xAjyKK50112025-09-30T14:59:28.613ZYES2025 TeamsNOhttps://video.igem.org/w/6WQDheP7cLCdm38uNdt1j6https://video.igem.org/lazy-static/thumbnails/df83fc2c-8336-4bf8-a3cd-43b1e35bf70a.jpgSJTU-Software: HP-1 (2025) [Chinese]HP Practice Exploration Activity https://2025.igem.wiki/sjtu-software/https://static.igem.org/peertube/streaming-playlists/hls/3025d583-f427-40b7-b701-21360db1b851/fa782c0a-145e-4eaa-8c0d-d6444d12050e-master.m3u8https://video.igem.org/videos/embed/6WQDheP7cLCdm38uNdt1j66032025-09-30T15:28:02.158ZHuman PracticeYES2025 TeamsNOhttps://video.igem.org/w/3Vpmn4Qf7vWG3cssRd9xAGhttps://video.igem.org/lazy-static/thumbnails/c57b64f6-3260-43b7-9ccc-49031a7846a9.jpgSJTU-Software: HP-2 (2025) [Chinese]HP Practice Exploration Activity https://2025.igem.wiki/sjtu-software/https://static.igem.org/peertube/streaming-playlists/hls/17a71676-cec7-4c62-9ddb-8d87fc0d0358/fc334930-f94c-45c6-aa19-7b996e97d243-master.m3u8https://video.igem.org/videos/embed/3Vpmn4Qf7vWG3cssRd9xAG97052025-09-30T15:36:14.887ZHuman PracticeYES2025 TeamsNOhttps://video.igem.org/w/dBD1BwzhtmdWkNW7MPMrUxhttps://video.igem.org/lazy-static/thumbnails/9d303c08-5582-4b59-b8e9-c7747f9dd3c3.jpgSJTU-Software: HP-3 (2025) [Chinese]HP Practice Exploration Activity https://2025.igem.wiki/sjtu-software/https://static.igem.org/peertube/streaming-playlists/hls/66278122-e131-4788-ae37-3493da587103/f982691e-3ebb-47d4-a327-c1410149010b-master.m3u8https://video.igem.org/videos/embed/dBD1BwzhtmdWkNW7MPMrUx340022025-09-30T15:48:20.581ZHUMAN PRACTICEYES2025 TeamsNOhttps://video.igem.org/w/3kwbF4DyPdTep4DBRN1Whthttps://video.igem.org/lazy-static/thumbnails/800ef331-3c30-4ee7-9864-a712a592bca1.jpgBIT-China: blue light-induced promoter (2025)[00:00-00:08]TDH3 serves as a constitutive promoter, followed by the CIB1 gene and the CRY2 gene, which express their corresponding proteins. [00:08-00:14]Under dark conditions, T7PM is unable to initiate transcription. [00:14-00:20] In the presence of blue light, the CIB1 and CRY2 proteins form a dimer, which activates transcription, thereby enabling the expression of the downstream reporter gene EGFP. Producer: Feiya Su and Yundi Zhao Team Wiki Link: https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/12ec02b1-3aef-4538-8e3b-751eb428ca13/0e0611de-9b64-43d5-aa16-98da080ca918-master.m3u8https://video.igem.org/videos/embed/3kwbF4DyPdTep4DBRN1Wht21012025-09-30T15:49:52.517ZYES2025 TeamsNOhttps://video.igem.org/w/f6bW79WUSW9r3sT6HaE6Uehttps://video.igem.org/lazy-static/thumbnails/fa7d12b5-459a-4580-80de-913aadd27a4d.jpgSCUT-CHINA-L: Drama Troupe's Collaborative Play: "Ginseng Saponin Black Magic" (2025) [Chinese]The drama was completed in collaboration with the SCUT Drama Society, featuring the yeast "Little Yeast" as the protagonist. It tells the story of how it successfully produces ginsenosides through synthetic biology techniques after encountering three genes. The plot revolves around the process of Little Yeast's fear of genetically modified technology, gradually understanding and accepting it, and helping the audience reduce their doubts about synthetic biology and genetically modified products unconsciously. The script is vivid and interesting, triggering bursts of laughter while also making it easy for the audience to learn synthetic biology knowledge.https://static.igem.org/peertube/streaming-playlists/hls/721965d0-1a22-43db-9319-f8215ab40469/d6a75a72-b821-43d9-a5ed-227841982001-master.m3u8https://video.igem.org/videos/embed/f6bW79WUSW9r3sT6HaE6Ue4000162025-09-30T16:10:08.329ZYES2025 TeamsNOhttps://video.igem.org/w/1BHGNRjnY1HayAWYoqYFhWhttps://video.igem.org/lazy-static/thumbnails/cdaed132-398c-473e-af60-e7177b1dfc40.jpgBIT-China: green light-induced promoter (2025)[00:00-00:03]TDH3 is a constitutive promoter, followed by the CarH gene, which expresses the CarH protein. [00:03-00:09]The CarH protein forms a tetramer and binds to the CarO site, repressing the expression of downstream genes. [00:09-00:17]Under green light, the CarH tetramer disassembles, and the repression disappears, allowing the downstream reporter gene EGFP to be expressed. Producer: Feiya Su and Yundi Zhao Team Wiki Link: https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/04fcbb91-f120-4227-bdff-dd62d13ef552/fbd4e828-c48b-4047-999a-c8eff410be93-master.m3u8https://video.igem.org/videos/embed/1BHGNRjnY1HayAWYoqYFhW18012025-09-30T15:57:02.812ZYES2025 TeamsNOhttps://video.igem.org/w/kRfAPRZ6Hro37TEB2ozYf8https://video.igem.org/lazy-static/thumbnails/266e5f38-e9e7-4272-88da-ca821bbec3ea.jpgBIT-China: red light-induced promoter (2025)[00:00-00:08]TDH3 serves as a constitutive promoter, followed by the PhyBNT gene and the PIF3 gene, which express their corresponding proteins. [00:08-00:13]Under dark conditions, GALZifBSp is unable to initiate transcription. [00:13-00:21]In the presence of red light, the PhyBNT and PIF3 proteins form a dimer, initiating transcription, which subsequently allows the expression of the downstream reporter gene EGFP. Producer: Feiya Su and Yundi Zhao Team Wiki Link: https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/a0be13bd-4d5b-4c8f-897b-0670625957fb/598d58f6-6063-4f81-ab90-111a981ca75f-master.m3u8https://video.igem.org/videos/embed/kRfAPRZ6Hro37TEB2ozYf821042025-09-30T15:59:13.445ZYES2025 TeamsNOhttps://video.igem.org/w/1TjTNazUs2V4qNHqWf4AC4https://video.igem.org/lazy-static/thumbnails/d66a0303-c1c7-4ce9-bf95-18fb41fd2666.jpgRUM-UPRM: Departamento de Biología inaugura corredor didáctico e innovador laboratorio de investi...Informative video showcasing our inauguration of our Industrial Microbiology and Synthetic Biology Didactic Hall, as well our investigation laboratory at the Biology Department within the University of Puerto Rico-Mayaguez. Credits to URPM Prensa for providing the editing, and videotaping. Link to our wiki: https://2025.igem.wiki/rum-uprm/https://static.igem.org/peertube/streaming-playlists/hls/072a9354-fedc-4d39-bd85-e4a897a4c28b/7589ea62-a225-4801-8447-b178ddd8e539-master.m3u8https://video.igem.org/videos/embed/1TjTNazUs2V4qNHqWf4AC42180122025-09-30T16:17:29.490ZYES2025 TeamsNOhttps://video.igem.org/w/4g5dmrZY3WnVXScLDpBh2ehttps://video.igem.org/lazy-static/thumbnails/40fedc74-ad1f-41bb-b927-a332f9cd39a9.jpgHK-HCY-PCMS: How do we Prevent It? (Glaucoma, Glaucoma) - Our Original Educational Song (2025) [E...The iGEM Team HK-HCY-PCMS has created an original educational song, promoting the values, awareness, and preventive measures. Take a listen and learn more about our project!https://static.igem.org/peertube/streaming-playlists/hls/1a662b3a-f103-47a8-8c34-80f89b803d0f/63e25d91-2e75-4783-be72-9994924cf466-master.m3u8https://video.igem.org/videos/embed/4g5dmrZY3WnVXScLDpBh2e1430342025-09-30T17:00:10.416ZsongssynbioglaucomahealthcommunityYES2025 TeamsNOhttps://video.igem.org/w/nmhpp5qB6nFRy6kNXcLEeEhttps://video.igem.org/lazy-static/thumbnails/2298946b-b051-45b5-b28b-b26cf7ca6763.jpgULethbridge: DNA Animation (2025)This video show the animation of DNA strands, using for the hero section of our Wiki Page.https://static.igem.org/peertube/streaming-playlists/hls/ace4e56e-c20f-462a-8f78-af25d55f8260/242dbb54-6f24-4f15-9cb4-28847db353aa-master.m3u8https://video.igem.org/videos/embed/nmhpp5qB6nFRy6kNXcLEeE130962025-10-01T07:15:29.972ZScience and TechnologyDNAYES2025 TeamsNOhttps://video.igem.org/w/n31e9CJhPCxi447cAZeu7Bhttps://video.igem.org/lazy-static/thumbnails/4174f316-f87c-4e63-bd3c-6c0f6ce0eb39.jpgGU-Frankfurt: Farming Forward - E2 Real-World Examples (2025) [English]For the second installment in our Farming Forward video series, we delve into two real-world examples of GMO use in agriculture. The debate on GMO is complex and to reflect this we wanted to share examples of how GMO crops were implemented with success and with failure. https://static.igem.org/peertube/streaming-playlists/hls/aa578a03-3214-4bd5-a34f-513770701e07/d10e5989-ed39-4fd9-b53f-a8d6b154c7df-master.m3u8https://video.igem.org/videos/embed/n31e9CJhPCxi447cAZeu7B257072025-10-01T07:37:31.130Zintegrated human practicesagricultureEducationGMOYES2025 TeamsNOhttps://video.igem.org/w/akUEL82JguerEo2TpMf6UJhttps://video.igem.org/lazy-static/thumbnails/bb21e77b-7437-4a60-b939-cea7cf40096a.jpgGU-Frankfurt: Farming Forward - E3 Public perception on GMOs (2025) [English]The third video in our Farming Forward video series follows on from the first two, we discuss reasons why if GMO use offers an advantage to farmers and consumers alike there is still widespread mistrust. The debate on GMO is not black or white, but must be regulated and controlled as if it was such. https://static.igem.org/peertube/streaming-playlists/hls/4ba9d66a-0ce9-4332-979c-662c599aa046/c609d894-926a-4336-a9d9-3bcb222b964a-master.m3u8https://video.igem.org/videos/embed/akUEL82JguerEo2TpMf6UJ225032025-10-01T08:13:12.937Zagricultureintegrated hpeducationGMOYES2025 TeamsNOhttps://video.igem.org/w/rQoEoWfeQrbVwcD8FbvvrShttps://video.igem.org/lazy-static/thumbnails/e7cebd54-6b8d-433d-ba81-adec53e6eda5.jpgGU-Frankfurt: Farming Forward - E1 Was sind GVOs? (2025) [German]Die erste Folge unserer Video-Serie "Farming Forward" behandelt das Thema Gentechnisch veränderte Organismen (GVO) in der Landwirtschaft. Wir erklären, was ein GVO ist und wie sich dieser von herkömmlichen Züchtungsmethoden unterscheidet. Außerdem gehen wir auf einige der Gründe ein, warum GVO in der Landwirtschaft eingesetzt werden, welche Vorteile sie bieten und wie selektive Züchtung kein neues Konzept ist.https://static.igem.org/peertube/streaming-playlists/hls/d1362226-fd83-4f24-a9d7-c1c49e0802b8/045473ba-8f51-4887-a021-95c7d4ffdf8f-master.m3u8https://video.igem.org/videos/embed/rQoEoWfeQrbVwcD8FbvvrS224082025-10-01T08:37:48.658Zagricultureintegrated HPEducationGMOYES2025 TeamsNOhttps://video.igem.org/w/vb8SSQ5GYM6TCVGQgaddwChttps://video.igem.org/lazy-static/thumbnails/56c846fa-0be2-4f72-9ed9-98045482cfc9.jpgGU-Frankfurt: Farming Forward - E2 Beispiele aus dem Alltag (2025) [German]Für die zweite Folge unserer Video-Reihe Farming Forward tauchen wir in zwei reale Beispiele für den Einsatz von Gentechnik in der Landwirtschaft ein. Die Debatte über Gentechnik ist komplex, und um dem gerecht zu werden, wollten wir Beispiele zeigen, wie gentechnisch veränderte Pflanzen sowohl erfolgreich als auch erfolglos eingesetzt wurden.https://static.igem.org/peertube/streaming-playlists/hls/ec435035-f840-44a5-9be7-28ca26772970/8cd0f507-2f72-4832-82dd-c1487f36b946-master.m3u8https://video.igem.org/videos/embed/vb8SSQ5GYM6TCVGQgaddwC266012025-10-01T08:56:17.922ZLandwirtschaftintegrated HPeducationaufklärungGVOYES2025 TeamsNOhttps://video.igem.org/w/jGmZSyzZ4NftUFKFb94iuVhttps://video.igem.org/lazy-static/thumbnails/921b51b0-d7a0-4435-bb47-77d283c90546.jpgGU-Frankfurt: Farming Forward - E3 Öffentliche Wahrnehmung von GVOs (2025) [German]Das dritte Video in unserer Farming Forward-Video-Reihe knüpft an die ersten beiden an. Wir diskutieren Gründe, warum es trotz der Vorteile von Gentechnik für Landwirte und Verbraucher immer noch weit verbreitetes Misstrauen gibt. Die Debatte über Gentechnik ist nicht schwarz oder weiß, muss jedoch so reguliert und kontrolliert werden, als ob sie es wäre.https://static.igem.org/peertube/streaming-playlists/hls/97672fe1-000f-4d26-8fe0-bc4c54f61769/6e8df2eb-32ad-4745-aca3-a5a8cdc55424-master.m3u8https://video.igem.org/videos/embed/jGmZSyzZ4NftUFKFb94iuV244012025-10-01T09:27:36.759Zintegrated HPeducationlandwirtschaftGVOYES2025 TeamsNOhttps://video.igem.org/w/nVv385hpkfTXjcN1PLhTmVhttps://video.igem.org/lazy-static/thumbnails/1506358d-1a4a-44b0-86bf-73fff1fb9971.jpgUAlberta: The Mighty AshBloom Storybook (2025) [English]This video has the audio recording and visuals to the University of Alberta AshBloom story, The Mighty AshBloom. Our wiki: https://2025.igem.wiki/ualberta/https://static.igem.org/peertube/streaming-playlists/hls/b18839e1-c859-4862-8275-f17db11fb289/c53160bf-d639-4caf-bd3b-6c43f6815a38-master.m3u8https://video.igem.org/videos/embed/nVv385hpkfTXjcN1PLhTmV2845112025-10-01T09:00:32.207ZYES2025 TeamsNOhttps://video.igem.org/w/aorgVvJkswu2s9g69PWAUdhttps://video.igem.org/lazy-static/thumbnails/45ab3415-ae28-43c4-8909-c2842f9ebd0a.jpgUAlberta: k-pop labwork (2025) [English]A video from our TikTok account for social engagement. Wiki: https://2025.igem.wiki/ualberta/https://static.igem.org/peertube/streaming-playlists/hls/4c042fd6-23fc-4564-95a7-73fd1c670ebc/232d152e-443b-4c1b-99c0-5fb873acf666-master.m3u8https://video.igem.org/videos/embed/aorgVvJkswu2s9g69PWAUd15042025-10-01T09:28:28.994ZYES2025 TeamsNOhttps://video.igem.org/w/3TenmiTWpJibb5nLdsjJVMhttps://video.igem.org/lazy-static/thumbnails/f46f409e-b997-4b4c-8cb2-496c4110d5b0.jpgUAlberta: It's Like a Reward (2025) [English]A video from our instagram account to engage with the public. Wiki: https://2025.igem.wiki/ualberta/https://static.igem.org/peertube/streaming-playlists/hls/175972ae-afa8-4871-9b8d-b003647dc987/982645ff-2fd2-473f-9f99-75f807a35731-master.m3u8https://video.igem.org/videos/embed/3TenmiTWpJibb5nLdsjJVM9022025-10-01T09:29:51.889ZYES2025 TeamsNOhttps://video.igem.org/w/tbNfipFkXLvfAoNWzMCXcDhttps://video.igem.org/lazy-static/thumbnails/208120eb-5375-403b-ada3-c3eb205d80d6.jpgUAlberta: Lab Rating TikTok (2025) [English]This video from our TikTok account was used to engage the public. Wiki: https://2025.igem.wiki/ualberta/https://static.igem.org/peertube/streaming-playlists/hls/dc28ae95-acc6-4d2c-98f5-97c99c22f6ef/b2067e31-8dff-4c09-baf2-6e96eeef62bf-master.m3u8https://video.igem.org/videos/embed/tbNfipFkXLvfAoNWzMCXcD59022025-10-01T09:05:41.761ZYES2025 TeamsNOhttps://video.igem.org/w/gPmd2S3hvCJaW9EH1JoyfFhttps://video.igem.org/lazy-static/thumbnails/24e0594b-9cf2-43c8-9127-d0259e02c0c3.jpgThessaloniki: siREN Pitch Demo (2025) [English]This is the pitch demo video created by iGEM Thessaloniki 2025 for our project siREN. The video is designed as a professional presentation tool within the entrepreneurship context, aiming to promote our innovation to stakeholders, potential partners, and entrepreneurship competitions. The presentation is delivered by Antonios Tsiorvas (Team Leader) and Marianna Rafailia Palieraki (Team Member), with filming support by Ioanna Karampela (Team Leader). Wiki link: https://2025.igem.wiki/thessaloniki/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/80157d89-1ec9-4f1e-a682-c40274b77323/d1769f73-31f5-4882-84cb-b2469f81caff-master.m3u8https://video.igem.org/videos/embed/gPmd2S3hvCJaW9EH1JoyfF4630162025-10-01T07:24:40.468ZYES2025 TeamsNOhttps://video.igem.org/w/978mcAVEbq8ZhxdTM7sXW7https://video.igem.org/lazy-static/thumbnails/b81a0aad-0c89-4e9e-a841-9ffe064e6e24.jpgNAU-CHINA: From Nature, For Nurture 系列初中生科普视频 (2025) [Chinese]NAU-CHINA: From Nature, For Nurture 系列初中生科普视频 (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/41a419b6-2ffc-474f-9b56-37a02054da4e/2f53cf54-e051-4dd7-ae4a-08e3db8aec38-master.m3u8https://video.igem.org/videos/embed/978mcAVEbq8ZhxdTM7sXW7929062025-10-01T07:20:31.726ZYES2025 TeamsNOhttps://video.igem.org/w/a5VhpSG53Ny5Q4FCPiE2iZhttps://video.igem.org/lazy-static/thumbnails/9f6a1de5-b181-49eb-a023-e12d6086646b.jpgBarcelona-UB: tanslation (2025) [English]Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/49920f4f-b6a7-42a2-b6b2-2c0ee47a5717/c9612fd7-0ae5-4ae5-a5bd-ef6ce1832bb7-master.m3u8https://video.igem.org/videos/embed/a5VhpSG53Ny5Q4FCPiE2iZ806122025-10-01T09:00:52.820ZYES2025 TeamsNOhttps://video.igem.org/w/8XtKPTSBDUzrMUf8iKdYBahttps://video.igem.org/lazy-static/thumbnails/885f2786-0af8-4946-a8ad-b6c23dd023f8.jpgBarcelona-UB: translation scr (2025) [English]Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/406efba4-57ac-43cf-9800-b04350d413c7/091981de-ef8a-401a-90c3-ce2ad5ecd17c-master.m3u8https://video.igem.org/videos/embed/8XtKPTSBDUzrMUf8iKdYBa170812025-10-01T09:30:22.402ZYES2025 TeamsNOhttps://video.igem.org/w/rDM2PWQi8YpJzDoyS3GaMThttps://video.igem.org/lazy-static/thumbnails/af42d588-f672-4e0a-ab64-f6977705f589.jpgBarcelona-UB: switch scr (2025) [English]Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/cfbabcd5-928e-4b6e-a094-ee6b01047849/68f7fe95-effa-4a76-84cd-caf2326a7191-master.m3u8https://video.igem.org/videos/embed/rDM2PWQi8YpJzDoyS3GaMT120232025-10-01T09:30:48.894ZYES2025 TeamsNOhttps://video.igem.org/w/nkyN9KC1SXCVDDgrAYcFUrhttps://video.igem.org/lazy-static/thumbnails/6bb946ff-7ac7-492d-b0fb-86de4eaa8063.jpgShanghaitech-China: Light of Education Illuminating the Mountain Village (2025) [English]https://2025.igem.wiki/shanghaitech-china/educationhttps://static.igem.org/peertube/streaming-playlists/hls/accb412a-ebce-4b7e-aab4-2715ecadab95/2d253c2f-6cfa-4490-91ad-cbe75e379131-master.m3u8https://video.igem.org/videos/embed/nkyN9KC1SXCVDDgrAYcFUr870122025-10-01T09:37:43.122ZYES2025 TeamsNOhttps://video.igem.org/w/9X8MhKmsYcfzvUsZuyZfTYhttps://video.igem.org/lazy-static/thumbnails/060ae6ce-b39b-43ee-9f10-b8015fee4417.jpgSHSID: "Chromium Man" MV (2025) [English]SHSID: "Chromium Man" MV (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/487bcfce-67a8-41eb-88fa-001e54d4d566/60d8119c-389f-41a5-bbcb-10a67c085425-master.m3u8https://video.igem.org/videos/embed/9X8MhKmsYcfzvUsZuyZfTY1840162025-10-01T09:37:49.005ZYES2025 TeamsNOhttps://video.igem.org/w/ptkDR36rtqWNyGwFuDT1WZhttps://video.igem.org/lazy-static/thumbnails/a274d2d4-8d5d-4f00-aba8-33691499b26a.jpgKeystone: Alzheimer's Disease & Synthetic Biology (2025) [Chinese]Keystone: Alzheimer's Disease & Synthetic Biology (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/be1361db-a89e-45bc-98e1-b0fbef2f01fd/e34e020d-6465-4434-a28a-c072b2cb384e-master.m3u8https://video.igem.org/videos/embed/ptkDR36rtqWNyGwFuDT1WZ354062025-10-01T07:48:05.338ZYES2025 TeamsNOhttps://video.igem.org/w/x2GX2yuS5NZGNqoNW5126uhttps://video.igem.org/lazy-static/thumbnails/fb5b4020-2d17-4dc2-beaf-fb504b32ff34.jpgMammothEdu-South: Fermentation in PhaBuilder (2025)MammothEdu-South: Fermentation in PhaBuilder (2025)https://static.igem.org/peertube/streaming-playlists/hls/fb48471d-0ebc-4ed5-aef6-62b550dc04e2/0741c562-6a92-4ce3-8e6b-1dc3c0bdb7a5-master.m3u8https://video.igem.org/videos/embed/x2GX2yuS5NZGNqoNW5126u7042025-10-01T08:12:42.559ZYES2025 TeamsNOhttps://video.igem.org/w/eU4BZR4KFGJjBdcmxGe4W8https://video.igem.org/lazy-static/thumbnails/c0081db8-eb31-4d01-bd0c-3e65833408b9.jpgMammothEdu-South: Fermentation design (2025)MammothEdu-South: Fermentation design (2025)https://static.igem.org/peertube/streaming-playlists/hls/708bb5bd-606b-4467-85bd-9202eb2b3317/1173c6a1-ce52-4fe9-a0d3-7c26b494e986-master.m3u8https://video.igem.org/videos/embed/eU4BZR4KFGJjBdcmxGe4W85092025-10-01T08:31:48.618ZYES2025 TeamsNOhttps://video.igem.org/w/cMpwJ742AFiYSVgsQCBmnXhttps://video.igem.org/lazy-static/thumbnails/5a1a2a07-b3f8-4989-a73a-0b1ef43682e7.jpgSHSID: iGEM team Crouton pipette tutorial (2025) [English]SHSID: iGEM team Crouton pipette tutorial (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/5f6b7ee2-24b6-4493-aeff-5f1a3ad4a481/2881c515-d45a-4463-8639-b763d993712e-master.m3u8https://video.igem.org/videos/embed/cMpwJ742AFiYSVgsQCBmnX213022025-10-01T09:40:04.790ZYES2025 TeamsNOhttps://video.igem.org/w/nb1uHuxgPmdb12cXi9QUtFhttps://video.igem.org/lazy-static/thumbnails/e30d0b2e-3b24-4e77-86c1-9b0458f62b9c.jpgSHSID: iGEM team Crouton centrifuge tutorial (2025) [English]SHSID: iGEM team Crouton centrifuge tutorial (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/ab75a798-8da1-4695-ae04-b5d14d46e575/2dbcbfc6-3e1c-4b69-beca-263444b38dec-master.m3u8https://video.igem.org/videos/embed/nb1uHuxgPmdb12cXi9QUtF216032025-10-01T09:40:31.175ZYES2025 TeamsNOhttps://video.igem.org/w/3f774vjbVboh9GAFwGWa9Hhttps://video.igem.org/lazy-static/thumbnails/b031a6b2-2f16-4b68-aeb5-835baf2adc91.jpgIISER-Berhampur: Orbital Compilation of Metal-Contaminated Sites (2025)This video presents an orbital-style compilation of some of the metal-contaminated locations and nearby regions, created using Google Earth Studio. Featured sites include Sukinda (India), Kodaikanal (India), Hinkley (USA), and Camelford (UK). Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright and Creation information - created via Google Earth Studio - visuals from Airbus via google earth studio - compiled and edited with Apple Final Cut Pro - Contains no background audio; - used for visualisation purposes only; visual not to scale; nor locations geologically markedhttps://static.igem.org/peertube/streaming-playlists/hls/122a73be-8429-4956-900e-4d6c6596f0ad/0476ca69-83c5-456f-a496-5f7b299e2fa0-master.m3u8https://video.igem.org/videos/embed/3f774vjbVboh9GAFwGWa9H112002025-10-01T08:31:25.871ZYES2025 TeamsNOhttps://video.igem.org/w/4v57AT8teeSDmm4XmoCXB4https://video.igem.org/lazy-static/thumbnails/b5fa2893-62a5-4dd7-a358-6eed4cc4f1b8.jpgIISER-Berhampur: Orbital photage of Camelford (UK) (2025)This video presents an orbital-style photage of metal-contaminated and nearby regions of Camelford (UK), created using Google Earth Studio. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright and Creation information - created via Google Earth Studio - visuals from Airbus via google earth studio - compiled and edited with Apple Final Cut Pro - Contains no background audio; - used for visualisation purposes only; visual not to scale; nor locations geologically markedhttps://static.igem.org/peertube/streaming-playlists/hls/1c5a8542-1b9e-40ac-9663-10a0fe7e1f6d/6519d203-edb4-4413-89ed-2cbbe29f969d-master.m3u8https://video.igem.org/videos/embed/4v57AT8teeSDmm4XmoCXB460022025-10-01T08:49:30.796ZYES2025 TeamsNOhttps://video.igem.org/w/6n2K911wJpRQrdicxwg4schttps://video.igem.org/lazy-static/thumbnails/c69ee75f-47e2-493d-a133-6c0d8be172af.jpgIISER Berhampur: Orbital photage of Kodaikanal region, Tamilnadu, India (2025)This video presents an orbital-style photage of metal-contaminated and nearby regions of Kodaikanal, Tamilnadu, India, created using Google Earth Studio. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright and Creation information - created via Google Earth Studio - visuals from Airbus via google earth studio - edited with Apple Final Cut Pro - Contains no background audio; - used for visualisation purposes only; visual not to scale; nor locations geologically markedhttps://static.igem.org/peertube/streaming-playlists/hls/2b6d6318-e602-4f69-ae4e-3c053e5aa133/bd14a8b1-609c-4357-ab70-7ff115beb1e2-master.m3u8https://video.igem.org/videos/embed/6n2K911wJpRQrdicxwg4sc60012025-10-01T09:10:21.733ZYES2025 TeamsNOhttps://video.igem.org/w/4tHDkd1Bo5AXBC8HLPNpxHhttps://video.igem.org/lazy-static/thumbnails/87115506-df5b-4c1c-807b-06a293f57b15.jpgIISER Berhampur: Orbital photage of Hinkley (USA) (2025)This video presents an orbital-style photage of metal-contaminated and nearby regions of Hinkley (USA), created using Google Earth Studio. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright and Creation information - created via Google Earth Studio - visuals from Airbus via google earth studio - edited with Apple Final Cut Pro - Contains no background audio; - used for visualisation purposes only; visual not to scale; nor locations geologically markedhttps://static.igem.org/peertube/streaming-playlists/hls/1c2a295d-0097-446b-9dc8-2b93b57f8dcb/f4c064bb-b66a-4825-9457-2f6e9a8ea790-master.m3u8https://video.igem.org/videos/embed/4tHDkd1Bo5AXBC8HLPNpxH60012025-10-01T09:33:47.864ZYES2025 TeamsNOhttps://video.igem.org/w/xkT9mEusC35zZQ5U9wCaYLhttps://video.igem.org/lazy-static/thumbnails/83144117-a022-4f66-8a65-07e51cde53f2.jpgIISER Berhampur: Orbital photage of Sukinda chromite mine valley, Sukinda, Jajpur, Odisha, India ...This video presents an orbital-style photage of metal-contaminated and nearby regions of Sukinda Chromite Mine, Sukinda Valley, Odisha, India, created using Google Earth Studio. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright and Creation information - created via Google Earth Studio - visuals from Airbus via google earth studio - edited with Apple Final Cut Pro - Contains no background audio; - used for visualisation purposes only; visual not to scale; nor locations geologically markedhttps://static.igem.org/peertube/streaming-playlists/hls/fdd1f2e0-f231-42a9-8f17-082a578152a0/406cdeda-4978-45aa-a270-218b2c9b4c49-master.m3u8https://video.igem.org/videos/embed/xkT9mEusC35zZQ5U9wCaYL6001712025-10-01T09:35:05.392ZYES2025 TeamsNOhttps://video.igem.org/w/7gVb9LFHDgEiWQcrxqWRmVhttps://video.igem.org/lazy-static/thumbnails/f09a623e-13da-4271-b9c4-9b2d7771c311.jpgREC-CHENNAI: Group members drone shot (2025)A wide aerial drone shot capturing all group members standing together in formation. The camera hovers smoothly from above, showcasing unity, coordination, and the collective energy of the team. The symmetry and backdrop highlight both the scale of the group and the surrounding environment.https://static.igem.org/peertube/streaming-playlists/hls/32cfc23f-779e-4aac-b4eb-f317111da4b1/681b1e5f-2f6f-4c17-bd58-6403682b2b8c-master.m3u8https://video.igem.org/videos/embed/7gVb9LFHDgEiWQcrxqWRmV10002025-10-01T09:13:56.231ZYES2025 TeamsNOhttps://video.igem.org/w/t2q72EeZwPYZHcSTeFF4Nahttps://video.igem.org/lazy-static/thumbnails/e10d6c88-a717-4ad3-a089-655948ca11e9.jpgVIT-Vellore: DBTL cycle in SynBio vs. Trial and Error in Traditional Genetic Engineering (2025) [...In this episode, we unpack the Design–Build–Test–Learn (DBTL) cycle- the core engine driving modern synthetic biology. Unlike traditional genetic engineering, which often relies on trial-and-error experimentation, synthetic biology treats biology like an engineering discipline. We explore how synbio teams use standardized parts, computer models, and automation to rapidly design and test genetic circuits, learn from the data, and optimize their systems. Join us as we compare this systematic approach with the more exploratory methods of classical genetic engineering, and ask: is biology finally becoming predictable? https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/dad95798-8cbb-49ca-88a7-afc986657949/97f9caa2-1fa0-4340-9847-e5a041f205ab-master.m3u8https://video.igem.org/videos/embed/t2q72EeZwPYZHcSTeFF4Na959002025-10-01T10:00:37.265ZYES2025 TeamsNOhttps://video.igem.org/w/gyNGxjE6hpUrYZuLizJSo1https://video.igem.org/lazy-static/thumbnails/4dc06c34-f115-4b9a-9c90-067b1c1a5aff.jpgSHSID: Lecture mutual learning 1 (2025) [English]SHSID: Lecture mutual learning 1 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/7e0da8e8-aa34-4f40-bffc-108a45e41544/be8497ab-72ed-49ff-a6e6-1242c422a8dd-master.m3u8https://video.igem.org/videos/embed/gyNGxjE6hpUrYZuLizJSo156042025-10-01T10:01:28.106ZYES2025 TeamsNOhttps://video.igem.org/w/duWW4vtFYfcXZy4pUy7pbghttps://video.igem.org/lazy-static/thumbnails/3f4c4182-99c4-4d75-ab2e-adcad568bcaa.jpgSHSID: Lecture mutual learning 2 (2025) [English]SHSID: Lecture mutual learning 2 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/653857b3-04cf-4604-ae2e-6ae9fb91613f/f02560e0-1cd1-4a53-8aa1-e614c808ae9b-master.m3u8https://video.igem.org/videos/embed/duWW4vtFYfcXZy4pUy7pbg187022025-10-01T10:02:24.857ZYES2025 TeamsNOhttps://video.igem.org/w/aqvZp7AmF9Q7pNi8et1QF5https://video.igem.org/lazy-static/thumbnails/a5d1fe4e-d8d5-44e9-afc7-6fcd99e4c352.jpgVIT-Vellore: Minimal Genomes: Building Life from Scratch (2025) [Gujarati]In this episode, we explore the fascinating world of minimal genomes—scientists’ efforts to create the smallest possible living cells by stripping down organisms to only the essential genes. Discover how this research helps us understand the fundamentals of life, guides synthetic biology design, and opens new doors for creating custom microbes tailored for specific tasks. https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/4c4e9487-0dac-4c6b-bcfd-9cfed257f3aa/3c4dd5e6-0dfe-46b5-9a6a-a4ba6ca23304-master.m3u8https://video.igem.org/videos/embed/aqvZp7AmF9Q7pNi8et1QF51361002025-10-01T10:16:10.914ZYES2025 TeamsNOhttps://video.igem.org/w/c7aaTs3LUkXiSaESauFHinhttps://video.igem.org/lazy-static/thumbnails/b88b45a7-5e6f-4260-afe4-d8bc7fc4f9c0.jpgVIT-Vellore: What is a BioBrick? And why does it matter? (2025) [Tamil]In this episode, we explore BioBricks - standardized DNA sequences that can be assembled like modular components to build complex genetic systems. Introduced to bring principles of standardization and interoperability to genetic engineering, BioBricks marked a turning point in synthetic biology. We'll discuss how BioBricks are designed with defined prefix/suffix sites, how they enable easy and repeatable DNA assembly, and why they became foundational to the iGEM competition and the Registry of Standard Biological Parts. https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/59f0a3ae-72d9-4722-bef3-63155b547bab/6a46fb2d-c889-464a-a7b2-ebd410afead4-master.m3u8https://video.igem.org/videos/embed/c7aaTs3LUkXiSaESauFHin1006042025-10-01T10:24:30.609ZYES2025 TeamsNOhttps://video.igem.org/w/b7Sn5GdWjnj8dAU1BdiTFnhttps://video.igem.org/lazy-static/thumbnails/46c4f242-5827-4376-a74e-93be73908a86.jpgMammothEdu-South: PHA product (2025)MammothEdu-South: PHA product (2025)https://static.igem.org/peertube/streaming-playlists/hls/51f0e305-d09b-4ca1-b1c5-68b9115acd5f/9134a9df-81c1-48b9-b17d-a26468339b6e-master.m3u8https://video.igem.org/videos/embed/b7Sn5GdWjnj8dAU1BdiTFn7042025-10-01T10:24:51.487ZYES2025 TeamsNOhttps://video.igem.org/w/jMLKy4MEaVtgdBDdtAqG7rhttps://video.igem.org/lazy-static/thumbnails/3a4c1fb2-24fb-4e07-bea1-6aeaf950f246.jpgIISER Berhampur: CASE POSEIDON - A short drama (2025) [English]This video is a short drama performed by the students of IISER Berhampur to spread awareness about our project with the student community. It was performed on 15th August, 2025, on the occasion of Independence Day. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright & Creation Information : This is an original video.https://static.igem.org/peertube/streaming-playlists/hls/98288b54-8a15-4882-b607-af7ababd1555/342bd1d4-78a4-46fb-a709-69e758ef532b-master.m3u8https://video.igem.org/videos/embed/jMLKy4MEaVtgdBDdtAqG7r964032025-10-01T11:12:43.844ZYES2025 TeamsNOhttps://video.igem.org/w/iyHtbe5dRtXXGsRBE8RMm8https://video.igem.org/lazy-static/thumbnails/5693dc5d-d152-4c7f-a5e7-5a0020998fa3.jpgVIT-Vellore: Evolution of Genetic Engineering into Synthetic Biology (2025) [Bengali]In this episode, we trace the journey from traditional genetic engineering- where scientists made changes to one gene at a time- to the rise of synthetic biology, which treats biology as a programmable engineering system. We’ll explore key milestones, breakthroughs, and the shift in mindset that transformed biotechnology into a design-driven discipline. Join us to understand how this evolution is shaping the future of medicine, agriculture, and more. https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/8e3cb6b9-5e9c-415c-b78c-de1a58a451fb/8f12e81b-3b1d-40d1-bcdb-b7338afd10ba-master.m3u8https://video.igem.org/videos/embed/iyHtbe5dRtXXGsRBE8RMm82174002025-10-01T11:02:50.535ZYES2025 TeamsNOhttps://video.igem.org/w/cYwGYxtGHQ25UsvRyphmBthttps://video.igem.org/lazy-static/thumbnails/406fa19c-c7a5-414d-9347-b94958ecbdce.jpgVIT-Vellore: Life Engineered For Better or Worse (2025) [Hindi]Synthetic biology is rewriting the rules of life—but what happens when powerful tools fall into the wrong hands? In this episode, we explore the “double-use” dilemma: how the same technology used to fight cancer, clean the environment, or feed the world could also be misused to create harmful bioagents or engineered pathogens.We’ll break down real examples, current concerns, and how the scientific community is addressing the risks—without slowing down innovation. It’s a story of balance: between freedom and responsibility, creativity and caution. https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/60f91993-b84e-4f70-9679-5b56b96c8e89/4210a300-d375-4aae-a2aa-e9c99d062f73-master.m3u8https://video.igem.org/videos/embed/cYwGYxtGHQ25UsvRyphmBt1033022025-10-01T11:22:23.572ZYES2025 TeamsNOhttps://video.igem.org/w/hVB91ZU8ArjVjzycBrJo8Rhttps://video.igem.org/lazy-static/thumbnails/61637f4d-ea9b-4459-88ab-389f67a6cb6a.jpgIISER Berhampur: Fe and Hg binding (2025)This video is a representation of how Fe and Hg bind to the proteins we embed in our biopolymer. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright & Creation Information : This is an original video. It is created in the After Effects software.https://static.igem.org/peertube/streaming-playlists/hls/890e4b06-c5d1-41bd-bdd5-7904db38069f/965b33ce-b81e-4151-80d5-cc3df4bab01d-master.m3u8https://video.igem.org/videos/embed/hVB91ZU8ArjVjzycBrJo8R10032025-10-01T11:53:14.758ZYES2025 TeamsNOhttps://video.igem.org/w/wGj2pCP3QGk858YDXz9K4Shttps://video.igem.org/lazy-static/thumbnails/7c28e0bf-fbf2-42f5-aaf6-8a65dd612d5d.jpgIISER Berhampur: Damages caused due to heavy metal contamination (2025)This video is an illustrative presentation of the damage caused to the human body due to toxic metal contamination. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright & Creation Information : Playback video: Pixabay free-to-use videos Custom project context text embedded.https://static.igem.org/peertube/streaming-playlists/hls/f89304b9-124b-47a8-9b0d-c19ee69bf1dc/afbdde3d-0416-477c-8700-5dba159369dd-master.m3u8https://video.igem.org/videos/embed/wGj2pCP3QGk858YDXz9K4S12012025-10-01T11:57:24.863ZYES2025 TeamsNOhttps://video.igem.org/w/aY1XBGkvzEEgd4MjAS1G68https://video.igem.org/lazy-static/thumbnails/269cbc86-c102-423b-a2a5-5a90b6ec2cba.jpgIISER Berhampur: Proteins that chelate metal ions (2025)This video is an illustrative presentation of what are the proteins present in plants that help in chelating heavy metal ions. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright & Creation Information : playback video: Pixabay free-to-use video. https://static.igem.org/peertube/streaming-playlists/hls/50b47d70-4eba-490e-a1f9-45a432ea8b29/8cc40b20-d40f-4b56-846b-75d3634e4c82-master.m3u8https://video.igem.org/videos/embed/aY1XBGkvzEEgd4MjAS1G6824022025-10-01T12:03:05.054ZYES2025 TeamsNOhttps://video.igem.org/w/wVe9rd6hwGc7mPbxngJgLWhttps://video.igem.org/lazy-static/thumbnails/9db2d391-10e5-4a79-9024-0bb87433bbcb.jpgUni-Padua-IT: hero-background (2025) [Italian]background video for Uni-Padua-IT 2025 wiki home page: https://2025.igem.wiki/uni-padua-it/ Video depicts Sammy Basso. Video is owned by TEDxLecce and we received the consent to freely use it in our wiki.https://static.igem.org/peertube/streaming-playlists/hls/fa60ae46-a4c6-441c-a591-e0f8e8e015aa/206c16b0-acd4-4da2-9d8f-89c6273fc42a-master.m3u8https://video.igem.org/videos/embed/wVe9rd6hwGc7mPbxngJgLW2502382025-10-01T17:34:51.599ZYES2025 TeamsNOhttps://video.igem.org/w/nAwKcHGkRTGM9M4gjv2r4vhttps://video.igem.org/lazy-static/thumbnails/7cf36beb-c9cc-4921-976e-27498639c2d5.jpgOkinawa no Daigaku: Interview with TRAFRU Orchards (2025) [Japanese]Join iGEM Okinawa as we interview the Nagamine family, owners and operators of TRAFRU Orchards, located in Tomigusuku City, Okinawa, Japan. Check out our project at https://2025.igem.wiki/okinawa-no-daigaku/https://static.igem.org/peertube/streaming-playlists/hls/aee225b1-2d40-432a-96bd-91868381a1c7/83173387-e46e-48f4-b536-2e1f1f14df8a-master.m3u8https://video.igem.org/videos/embed/nAwKcHGkRTGM9M4gjv2r4v3290142025-10-01T13:46:25.097ZfarmerfarmingPestsAgricultureMangoYES2025 TeamsNOhttps://video.igem.org/w/bN5VDHFrUjhrwF2ZvH4wB3https://video.igem.org/lazy-static/thumbnails/aaf29986-16c5-49b8-a67b-233e00b99d75.jpgMSP-Maastricht: From the Human Genome Project to De-extinction with George Church (2025) [English]In this episode of our interview series, we are joined by Prof. George Church — a pioneer whose work has shaped genomics, synthetic biology, and biotechnology for over four decades. From completing a double major in zoology and chemistry in just two years at Duke, to training under Nobel laureate Wally Gilbert at Harvard, George’s early career set the stage for breakthroughs that would transform biology. He played a key role in launching the Human Genome Project, later started the Personal Genome Project, and continues to push the frontiers of genome sequencing, editing, and open-access science. Today, Prof. Church leads a lab at Harvard and the Wyss Institute where his team develops technologies ranging from next-generation sequencing and gene editing to organ transplantation, ageing reversal, and even de-extinction. Beyond academia, he has co-founded more than 50 biotech companies, including Colossal Biosciences (de-extinction and ecosystem restoration), eGenesis (xenotransplantation), and Rejuvenate Bio (ageing reversal). In this episode, we explore: George’s unconventional academic path and early lessons in science The origins and impact of the Human Genome Project Why he advocates for open access to genomic data through the Personal Genome Project Using DNA for data storage and biological “recording devices” The future of CRISPR, multiplex gene editing, and AI-driven protein design Gene-edited pig organs and the road to solving organ shortages Synthetic biology solutions for climate change, agriculture, and sustainability The bold vision behind de-extinction and ecosystem restoration with Colossal Biosciences Ethical challenges of germline editing, ageing reversal, and biotechnology’s societal impact Host: Misha Bagirov Learn more about George’s work: https://churchlab.hms.harvard.edu/ https://colossal.com/ https://egenesisbio.com/ https://rejuvenatebio.com/ 👉 Don’t forget to like, subscribe, and share if you enjoy the episode! https://static.igem.org/peertube/streaming-playlists/hls/576aa29a-008a-4911-b676-3b7fd0013110/8b4d73f3-f4fb-4e88-ac88-9d1bd8a95362-master.m3u8https://video.igem.org/videos/embed/bN5VDHFrUjhrwF2ZvH4wB344320122025-10-01T13:06:48.738ZcorespindeextinctionAICRISPRgenomicsYES2025 TeamsNOhttps://video.igem.org/w/vLEDNUbNsSowf3AM9xURgFhttps://video.igem.org/lazy-static/thumbnails/bc2275a9-f63e-4778-ba1d-68d08b48a2a9.jpgVIT-Vellore: Hacking Gene Expression with Epigenetic Tools (2025) [Marathi]In this episode, we explore the fascinating intersection of synthetic biology and epigenetics - where scientists are learning to program not just what genes exist, but how and when they’re used. Epigenetics refers to the chemical markers and structures that control gene activity without altering the DNA sequence. Synthetic biology is now stepping into this layer of control, engineering systems that can turn genes on or off, silence them temporarily, or react to environmental signals - all without touching the genome. https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/f115912c-52d1-4aa9-a2e0-6274187dcdc1/cf0b07d1-2632-4c1f-9749-b38b21b22a55-master.m3u8https://video.igem.org/videos/embed/vLEDNUbNsSowf3AM9xURgF523002025-10-01T16:16:36.961ZYES2025 TeamsNOhttps://video.igem.org/w/4GXm5amKd7Z4mgXReFotH8https://video.igem.org/lazy-static/thumbnails/1db2293b-0c42-4dc0-8f71-98a253afeb5e.jpgTU-Eindhoven: LumiLoo (2025)A video of the dark box assembly of team BRIGHT, The animation was made using Fusion 360 by the team from TU Eindhoven (https://2025.igem.wiki/tu-eindhoven/)https://static.igem.org/peertube/streaming-playlists/hls/1e034666-ac3b-4d0d-97de-7fe8711260dd/6738c896-b2e6-4a28-8373-e95f8f6be884-master.m3u8https://video.igem.org/videos/embed/4GXm5amKd7Z4mgXReFotH860692025-10-01T17:47:39.700ZYES2025 TeamsNOhttps://video.igem.org/w/qxftCArBtBEcQWBYAKZhYLhttps://video.igem.org/lazy-static/thumbnails/8f7fbec9-4f81-4d58-a914-0a6712c07cdc.jpgSHSID: Crouton music (2025) [English]SHSID: Crouton music (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c6b84e5c-eb34-48a4-a730-67d5f5839274/758f7094-75d2-4ff1-b82a-814605dba4b0-master.m3u8https://video.igem.org/videos/embed/qxftCArBtBEcQWBYAKZhYL158092025-10-01T13:23:34.780ZYES2025 TeamsNOhttps://video.igem.org/w/mVY6YkDTHhyauG3gTysvFjhttps://video.igem.org/lazy-static/thumbnails/a8d06e4a-a6c7-4557-a7c5-eca703096bd2.jpgMSP-Maastricht: SnapGene Shortcuts (2025) [English]While using SnapGene in our dry lab, we found that knowing some useful keyboard shortcuts allows our workflow to be more smooth and efficient. In this video, we will list out some common keyboard shortcuts that might help you in the future. We hope these shortcuts will be as useful to you as they have been to us! MSP-Maastricht 2025 wiki: https://2025.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/a97fc486-ef1d-42ae-bc62-d481a737f5ac/a9235506-290b-4da8-bdd6-fbc79ae51160-master.m3u8https://video.igem.org/videos/embed/mVY6YkDTHhyauG3gTysvFj51042025-10-01T17:51:43.240ZYES2025 TeamsNOhttps://video.igem.org/w/iSFWar7wTANX38LzMDAhsHhttps://video.igem.org/lazy-static/thumbnails/fe02241c-f61a-4be4-9767-9ce7da6d8e66.jpgShanghai-HS: Online Education (2025) [Chinese]Shanghai-HS: Online Education (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/90bf27e3-f773-4fca-a2f3-62ab9a7d054d/19fa2d87-4a75-4574-9214-546a5afa1931-master.m3u8https://video.igem.org/videos/embed/iSFWar7wTANX38LzMDAhsH78022025-10-01T17:52:28.513ZeducationYES2025 TeamsNOhttps://video.igem.org/w/7njy2ViMVUfkGqHkgKdTJhhttps://video.igem.org/lazy-static/thumbnails/23c4661b-b209-451f-8a3a-ecb73c86c447.jpgShanghai-HS: Online Education (2025) [English]Shanghai-HS: Online Education (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/3390e267-3bc8-4fe4-87ee-07ff960760f0/50bdc2e9-6fcd-4751-bedb-9f84ad692b3f-master.m3u8https://video.igem.org/videos/embed/7njy2ViMVUfkGqHkgKdTJh78022025-10-01T13:34:27.037ZeducationYES2025 TeamsNOhttps://video.igem.org/w/mCe2Rki1mgJtvfUSWP1KJyhttps://video.igem.org/lazy-static/thumbnails/32d6f501-0fa3-4b70-b2fe-c79350545d4e.jpgMSP-Maastricht: SnapGene Shortcuts 2.0 (2025) [English]We have decided to make a second video which explains how to use different shortcuts in SnapGene. This video features shortcuts that will be useful for more advanced users of this online tool, and we hope that it will work as a good continuation of the first video where we explained more basic shortcuts for beginners. MSP-Maastricht 2025 wiki: https://2025.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/a7059482-9245-4e3a-9ed6-84b3bb18dae0/fcf73bfa-c332-4ee6-9ddc-a9213933d093-master.m3u8https://video.igem.org/videos/embed/mCe2Rki1mgJtvfUSWP1KJy55012025-10-01T14:12:04.345ZYES2025 TeamsNOhttps://video.igem.org/w/aAJzWMsdSMt2a55zMZmiVihttps://video.igem.org/lazy-static/thumbnails/1469e1d3-8ee3-4c01-ba50-b4025e29b623.jpgNEFU-China: home (2025)NEFU-China: home (2025)https://static.igem.org/peertube/streaming-playlists/hls/4dbbc7bc-0ccf-4c24-b85c-4c78f49cbe87/c08d6d00-4c0d-457e-ae2f-b66c24e636ac-master.m3u8https://video.igem.org/videos/embed/aAJzWMsdSMt2a55zMZmiVi5062025-10-01T17:52:36.231ZYES2025 TeamsNOhttps://video.igem.org/w/j9QuvUjNuDSquDPsdtPgcJhttps://video.igem.org/lazy-static/thumbnails/8c36db81-d6db-4293-af23-c063906741b3.jpgBUCT: Biopochito AI (2025) [English][buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/93005480-14d6-47a5-a5cd-3f6a9209c64c/7d5b6c4d-7352-4590-b335-7f7811934a6a-master.m3u8https://video.igem.org/videos/embed/j9QuvUjNuDSquDPsdtPgcJ1872082025-10-01T15:25:50.832ZYES2025 TeamsNOhttps://video.igem.org/w/pVjYNvzRBdkGVuxuRbUD5fhttps://video.igem.org/lazy-static/thumbnails/3f2a058d-ff85-4387-a2c9-f296973dd1d6.jpgHKUST-GZ: How our lychee dataset collector GUI help us efficiently collect lychee dataset (2025) ...- GitHub repo of the data collector GUI: https://github.com/iGEM2025DryLab/DatasetPicker - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/c1b44e30-5d5d-423c-b629-f02632dd680a/eda28009-534b-4d5c-b9b5-9c18fd7ee81d-master.m3u8https://video.igem.org/videos/embed/pVjYNvzRBdkGVuxuRbUD5f21042025-10-01T15:25:12.250ZYES2025 TeamsNOhttps://video.igem.org/w/mRCBEQ7Aq3HXti5dV7Hjnthttps://video.igem.org/lazy-static/thumbnails/7e3e43e2-e969-41a8-8aec-ed5c80c3242d.jpgMcGill: tcells (2025)Animation of cells clicking togetherhttps://static.igem.org/peertube/streaming-playlists/hls/a8e4c860-5147-489e-b7bd-2791fee1724d/793d4d15-6420-4079-97d3-a009e45d5065-master.m3u8https://video.igem.org/videos/embed/mRCBEQ7Aq3HXti5dV7Hjnt701482025-10-01T15:33:44.002ZYES2025 TeamsNOhttps://video.igem.org/w/ecaJ3ETQ1VCksQ9B1hmSWchttps://video.igem.org/lazy-static/thumbnails/5a3078b0-2e30-4c60-9376-e0db87144e82.jpgHKUST-GZ: AI powered auto-visulization, implemented based on MCP (early stage PoC) (2025) [English]This is an early stage prof of concept. A MCP server is implemented and connected to Claude desktop. visualization tool Claude was manipulating is PyMol, and the MCP server uses pymol-remote to parse commands to pymol's CLI - GitHub repo of the data collector GUI: https://github.com/iGEM2025DryLab/BioMCP - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/6ad5fa2d-3045-4a36-aa06-b54f68a6b82f/a4b1c65e-f57c-410c-bcf5-d32e6ee5f2a9-master.m3u8https://video.igem.org/videos/embed/ecaJ3ETQ1VCksQ9B1hmSWc330212025-10-01T16:05:06.883ZYES2025 TeamsNOhttps://video.igem.org/w/eDd1Rhmsz7dqrEYoVhHVDohttps://video.igem.org/lazy-static/thumbnails/3ab48b73-f9c7-464e-b386-4f19f8f8276c.jpgZJU-China: Agent Daily Conversation Demonstration (2025)An example video of a dialogue process with an iGEM project smart agent, used to demonstrate the interaction between the user and the agent.https://static.igem.org/peertube/streaming-playlists/hls/6e78b9f2-c949-43ec-b680-9ade924de1f4/50d9420d-2a5d-41e1-9233-5ab795281bd3-master.m3u8https://video.igem.org/videos/embed/eDd1Rhmsz7dqrEYoVhHVDo490112025-10-01T16:59:19.646ZYES2025 TeamsNOhttps://video.igem.org/w/8id7HJtW1Gg7A9TbhSTFR7https://video.igem.org/lazy-static/thumbnails/b2461fde-b922-478b-bdb8-bc1d771674d0.jpgUCSC: NOODL Program Demo (2025) [English]A quick demonstration video of how our spacer sequence generating program functions. For the UCSC iGEM team. Wiki: https://2025.igem.wiki/ucsc/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/3b1714d4-ace3-488d-8e83-e028da906ab4/19415d90-ec58-477d-a75b-9a52aa0d9c01-master.m3u8https://video.igem.org/videos/embed/8id7HJtW1Gg7A9TbhSTFR7290302025-10-01T17:20:36.898ZYES2025 TeamsNOhttps://video.igem.org/w/jXobxmN2wojzVaGfcNiPvzhttps://video.igem.org/lazy-static/thumbnails/f67dbfde-e8ca-4687-a906-4a90e00c13a6.jpgShanghaitech-China: 189_trj (2025)Molecular dynamics video of the protein binder complexhttps://static.igem.org/peertube/streaming-playlists/hls/998012bd-e4e2-4d5c-81ac-2d9cbde16e37/ae0f5643-8a32-4471-a075-080eb08b493b-master.m3u8https://video.igem.org/videos/embed/jXobxmN2wojzVaGfcNiPvz20012025-10-01T17:45:49.327ZYES2025 TeamsNOhttps://video.igem.org/w/2TMLBPyUnJoqsNz7i2X5BRhttps://video.igem.org/lazy-static/thumbnails/02fc3a27-2899-4918-b32c-bca1d0296f1e.jpgShanghaitech-China: ver2_trj (2025)Molecular dynamics simulation video of proteins and failed bindershttps://static.igem.org/peertube/streaming-playlists/hls/0f5446f9-773b-48df-83cf-b965e7a8f9f7/db355dd4-9f62-489a-a382-eba3a3497a50-master.m3u8https://video.igem.org/videos/embed/2TMLBPyUnJoqsNz7i2X5BR20012025-10-01T17:50:03.614ZYES2025 TeamsNOhttps://video.igem.org/w/ik9HudwyyJi8KUkqLLcdXohttps://video.igem.org/lazy-static/thumbnails/9637a168-4093-408a-a6b4-13ce4e6b9355.jpgShanghaitech-China: 1883_trj (2025)Molecular dynamics simulation video of protein binder complexeshttps://static.igem.org/peertube/streaming-playlists/hls/8c57dc1e-1d87-400d-93f3-d909798c93b4/c59a6634-515b-4b44-9b3a-817b7567da09-master.m3u8https://video.igem.org/videos/embed/ik9HudwyyJi8KUkqLLcdXo20012025-10-01T17:51:43.432ZYES2025 TeamsNOhttps://video.igem.org/w/jK53cMKZct53GsJVvmUZKRhttps://video.igem.org/lazy-static/thumbnails/6900fec0-5b87-43b2-b382-b1813bce4ad0.jpgShanghaitech-China: T2392_fit (2025)Molecular dynamics simulation video of GZMK and small molecule complexes (after induced fitting).https://static.igem.org/peertube/streaming-playlists/hls/97c7f76b-bf0a-41e5-ae75-8db0e0d8e5b3/fdee4881-6950-466d-b7a1-58b70f07f090-master.m3u8https://video.igem.org/videos/embed/jK53cMKZct53GsJVvmUZKR20002025-10-01T17:53:37.575ZYES2025 TeamsNOhttps://video.igem.org/w/7g5qH19QUq43saRwR9TxZhhttps://video.igem.org/lazy-static/thumbnails/530d20cb-27ec-462d-ab4c-bc8dc4c1675e.jpgShanghaitech-China: T2392_ori (2025)Molecular dynamics simulation video of GZMK and small molecule complexes (before induction fit).https://static.igem.org/peertube/streaming-playlists/hls/32b1b753-841b-4ad9-8eed-7e78d1ce116e/4a5bbdd5-1831-4b58-a595-6e9fdaffe89f-master.m3u8https://video.igem.org/videos/embed/7g5qH19QUq43saRwR9TxZh20002025-10-01T17:57:14.810ZYES2025 TeamsNOhttps://video.igem.org/w/3HtmcV9rq7KxW8q9LAxCf1https://video.igem.org/lazy-static/thumbnails/106fe33a-5ce1-440c-9cee-b2166a610d91.jpgUCLouvain: Human Practices Nestle (2025) [English]We interviewed a member of Nestlé, a large milk powder company, to get their opinion on our project.https://static.igem.org/peertube/streaming-playlists/hls/15fca03c-6861-4a5a-851f-a0ea3c50dfb4/81d5fe56-68aa-4792-bf92-dc8c6668e444-master.m3u8https://video.igem.org/videos/embed/3HtmcV9rq7KxW8q9LAxCf1221062025-10-01T19:05:07.928ZYES2025 TeamsNOhttps://video.igem.org/w/bLygW8K1etXNXMiivDsGDkhttps://video.igem.org/lazy-static/thumbnails/681cb7fa-3336-4d24-be62-2e0174a19285.jpgSZU-China: Responsibility by Design (2025) [English]We created a theme video for the Human Practice page, roughly meaning: we conducted an HP journey with the theme 'Responsibility by Design,' featuring mainly natural scenery and footage from our research process. [Click to view our Wiki page](https://2025.igem.wiki/szu-china/index.html)https://static.igem.org/peertube/streaming-playlists/hls/573400a2-6aa8-4150-943f-ccbc6d695455/6cc433e6-1988-4134-b58f-a9614e4e8916-master.m3u8https://video.igem.org/videos/embed/bLygW8K1etXNXMiivDsGDk7052052025-10-01T19:13:52.634ZYES2025 TeamsNOhttps://video.igem.org/w/fz3cDTv5BSUBSDgfuxJgTNhttps://video.igem.org/lazy-static/thumbnails/aecf4f30-a5c7-4dd4-82fa-390cb8918e36.jpgMcGill: eiffel (2025)McGill: eiffel (2025)https://static.igem.org/peertube/streaming-playlists/hls/75fcd78e-3600-45f2-8159-e0587509e7d8/f55afad3-ab37-480c-80d0-bb2e670f2832-master.m3u8https://video.igem.org/videos/embed/fz3cDTv5BSUBSDgfuxJgTN40662025-10-01T20:25:58.669ZYES2025 TeamsNOhttps://video.igem.org/w/2Ahfh37cQF6pMnvZsMpniVhttps://video.igem.org/lazy-static/thumbnails/4b5657c9-5910-47d2-ade9-3f878c841ae7.jpgMcGill: eiffel2 (2025)McGill: eiffel2 (2025)https://static.igem.org/peertube/streaming-playlists/hls/0ce2705a-a9b6-4ced-9150-f27c17b09f6b/da7487a1-88d9-4a84-a181-47561d82fbb4-master.m3u8https://video.igem.org/videos/embed/2Ahfh37cQF6pMnvZsMpniV30182025-10-01T20:26:29.206ZYES2025 TeamsNOhttps://video.igem.org/w/2kPgTY3xM8cQ4F3fVbiK4Rhttps://video.igem.org/lazy-static/thumbnails/ce19c431-3eac-48f2-bf2a-023468f92c06.jpgMcGill: neurons (2025)McGill: neurons (2025)https://static.igem.org/peertube/streaming-playlists/hls/0add676a-90bc-4b22-9ff2-949f51e9d8d3/c3b98a77-9861-4772-a942-84f00f737187-master.m3u8https://video.igem.org/videos/embed/2kPgTY3xM8cQ4F3fVbiK4R50262025-10-01T20:27:10.308ZYES2025 TeamsNOhttps://video.igem.org/w/9DpP4XDRRs8JHA4gEX4ZYchttps://video.igem.org/lazy-static/thumbnails/7d4c4dc1-e316-496f-aecc-2fdc8e5b335f.jpgIISER Berhampur: Hyperlapse of coding the website (2025)The video shows a short hyperlapse video of coding the website; used for visualisation purposes only. Wiki link: https://2025.igem.wiki/iiser-berhampur/ --- Credit, Copyright & Creation Information : in Frame - Subrat no background audio used; no external elements usedhttps://static.igem.org/peertube/streaming-playlists/hls/46024d9a-b0ce-4c8f-abff-8c3aa0d835a7/0e544de3-5a9f-4388-b07b-6fff52572497-master.m3u8https://video.igem.org/videos/embed/9DpP4XDRRs8JHA4gEX4ZYc21052025-10-01T22:01:13.050ZYES2025 TeamsNOhttps://video.igem.org/w/2gQ34eQvQiWdWPLDJtWkZbhttps://video.igem.org/lazy-static/thumbnails/375ed9f9-1701-4f7c-8585-ec552bb18982.jpgJGU-Mainz: TotalCO2_Volumetric (2025)Visualization of the total carbon dioxide (CO₂) on a global scale added on Earth's atmosphere over the course of the year 2021 (without the timeline). From NASA, public domain video. Credits: Visualizers Helen-Nicole Kostis (USRA) AJ Christensen (SSAI) Scientists Lesley Ott (NASA/GSFC) Brad Weir (Morgan State University) Technical support Laurence Schuler (ADNET Systems, Inc.) Ian Jones (ADNET Systems, Inc.) Eric Sokolowsky (Global Science and Technology, Inc.) https://2025.igem.wiki/jgu-mainz/descriptionhttps://static.igem.org/peertube/streaming-playlists/hls/0a4ee5ea-36b5-47f2-b40d-804f94516840/fbdc53a0-270d-4140-add4-7df898710846-master.m3u8https://video.igem.org/videos/embed/2gQ34eQvQiWdWPLDJtWkZb12003842025-10-01T23:05:44.417ZEnvironmentClimate ChangeCO2YES2025 TeamsNOhttps://video.igem.org/w/3EXqhoLiLYwwEGMHFJJvJihttps://video.igem.org/lazy-static/thumbnails/5de41ba5-5c7e-4896-9f3e-c4dd1e86d6fc.jpgTec-Chihuahua: What does the common bean mean to us? (2025) [English]Tec-Chihuahua: What does the common bean mean to us? (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/15a2b18c-4174-4395-8f59-a63c899ea5f9/b754dcd9-d604-4f99-88ef-ebec6f8363ce-master.m3u8https://video.igem.org/videos/embed/3EXqhoLiLYwwEGMHFJJvJi15072025-10-02T00:02:36.539ZYES2025 TeamsNOhttps://video.igem.org/w/t9ykBkAXFGXCN1exGvpRjmhttps://video.igem.org/lazy-static/thumbnails/1e9e0283-d0a6-40d9-a61f-2afa697cd37f.jpgFSU: Artist Introduction (2025) [English]This video introduces 2 of our artistshttps://static.igem.org/peertube/streaming-playlists/hls/dbd89f7f-4f74-4d45-a826-b3033ce87bb4/1d6df2a4-82f2-4899-a4ca-96399635483c-master.m3u8https://video.igem.org/videos/embed/t9ykBkAXFGXCN1exGvpRjm48052025-10-02T00:33:07.025ZYES2025 TeamsNOhttps://video.igem.org/w/2Ah3kpMa2yBW3LLjqeCB1Ahttps://video.igem.org/lazy-static/thumbnails/3eba1b3e-2db9-499e-a379-24e03c800070.jpgJLU-CP: software iTutor chat (2025) [English]JLU-CP: software iTutor chat (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/0ce24fdf-07a5-4b38-b348-23baedcbd8fe/0b1f30c9-3da7-4fb4-b773-608858354a08-master.m3u8https://video.igem.org/videos/embed/2Ah3kpMa2yBW3LLjqeCB1A87032025-10-02T02:24:35.410ZYES2025 TeamsNOhttps://video.igem.org/w/4nkxmwXjDvLJzFeie6Ut7Jhttps://video.igem.org/lazy-static/thumbnails/30abff66-c24c-4310-a54c-19a6d2714931.jpgZJU-China: Agent Sidebar Presentation (2025)Explore practical examples of sidebar conversations with our agent to enhance user interaction and experience.https://static.igem.org/peertube/streaming-playlists/hls/1b4613d4-b4df-49ea-86c2-45e9baa57aa2/f8154635-c6dd-49bf-96b6-0a86ab6e15c6-master.m3u8https://video.igem.org/videos/embed/4nkxmwXjDvLJzFeie6Ut7J240102025-10-02T03:41:29.870ZYES2025 TeamsNOhttps://video.igem.org/w/tiRFmvrbwoSLFTUMxJREoAhttps://video.igem.org/lazy-static/thumbnails/e3db00a5-3df2-4a0e-946c-c3f8b064183d.jpgZJU-China: Agent Chart Generation Demonstration (2025)A demo of chart generation by our Agent.https://static.igem.org/peertube/streaming-playlists/hls/dd2500dd-7674-4396-ad26-12a066e7e15e/5aadfaac-ecbd-43f9-b91c-afe077d43316-master.m3u8https://video.igem.org/videos/embed/tiRFmvrbwoSLFTUMxJREoA320132025-10-02T04:06:38.921ZYES2025 TeamsNOhttps://video.igem.org/w/5SAuidofD9mdgJCHKER3qUhttps://video.igem.org/lazy-static/thumbnails/289d3c7f-8da9-425a-a98b-72b22a00c029.jpgZJU-China: Form Filling and Image Generation Demonstration for Strand Replacing Reaction (2025)A demo of form filling and image generation through our software platform.https://static.igem.org/peertube/streaming-playlists/hls/2774ff3e-9136-4784-b837-8e5996eb4e14/a9fe2aba-8acf-4946-a931-41226595f6d0-master.m3u8https://video.igem.org/videos/embed/5SAuidofD9mdgJCHKER3qU35082025-10-02T04:10:37.563ZYES2025 TeamsNOhttps://video.igem.org/w/99dtgb6G79cC66NkywrSB5https://video.igem.org/lazy-static/thumbnails/f6ed799a-5385-449b-8c2f-56cafb409e66.jpgZJU-China: Demonstration of Algae-Bacteria Symbiosis Analysis (2025)A demo of algae-becteria symbiosis analysis and result.https://static.igem.org/peertube/streaming-playlists/hls/41eebe8e-e1b8-4de6-9144-abaca6ed8b82/84f9a2c6-c68c-429e-8815-aec7c7d5b5aa-master.m3u8https://video.igem.org/videos/embed/99dtgb6G79cC66NkywrSB517042025-10-02T04:14:45.694ZYES2025 TeamsNOhttps://video.igem.org/w/qGVFv1H1Vj9acPWUPot7zwhttps://video.igem.org/lazy-static/thumbnails/81defc96-95cb-4700-a568-ae5d1232ae5a.jpgZJU-China: Homepage of Software Platform (2025)A demo of our software platform.https://static.igem.org/peertube/streaming-playlists/hls/c8122927-3ba0-4ed8-a49f-c1c61126bd68/5db0a704-9f1a-49ab-872e-7f1c71e9caa8-master.m3u8https://video.igem.org/videos/embed/qGVFv1H1Vj9acPWUPot7zw6062025-10-02T04:16:09.832ZYES2025 TeamsNOhttps://video.igem.org/w/fSKXqCzhRrqJudaPRGtEBMhttps://video.igem.org/lazy-static/thumbnails/a562f774-8a05-4452-9666-934c90df5b80.jpgZJU-China: Ocean Currents and Pollution Diffusion Demonstration (2025)A demo of the visualization of an example of specific ocean currents and pullution diffusion modeling analysis.https://static.igem.org/peertube/streaming-playlists/hls/787637e5-1702-4353-bc4d-6916bfedec0b/e3e6e91a-b99d-4fbe-888c-e7e6705a6feb-master.m3u8https://video.igem.org/videos/embed/fSKXqCzhRrqJudaPRGtEBM350182025-10-02T04:18:30.562ZYES2025 TeamsNOhttps://video.igem.org/w/tfvJdxasFiXjwvTGL8iUwdhttps://video.igem.org/lazy-static/thumbnails/fb1297d1-2b55-4d49-99bf-b195397d2976.jpgZJU-China: Example of Protein-Lead Ion Treatment Efficiency (2025)A demo of using our software platform to analyze the effiency and time usage in the protein-lead ion reaction section.https://static.igem.org/peertube/streaming-playlists/hls/dcad7a1f-c660-4ff6-b57a-24c96c344c40/fd47adb1-306e-4389-90ba-ee0d52faf26f-master.m3u8https://video.igem.org/videos/embed/tfvJdxasFiXjwvTGL8iUwd14002025-10-02T04:21:25.271ZYES2025 TeamsNOhttps://video.igem.org/w/fLS1w1dewAuMmfnnHRG2hNhttps://video.igem.org/lazy-static/thumbnails/ed752250-764c-427a-96de-5c280a1326b5.jpgBUCT: Biopochito (2025) [English][buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/77a37c78-56a6-4663-9586-579a8b49a7a2/0691c30b-e5db-492f-b028-a692b919d0c6-master.m3u8https://video.igem.org/videos/embed/fLS1w1dewAuMmfnnHRG2hN1900112025-10-02T05:42:42.534ZYES2025 TeamsNOhttps://video.igem.org/w/3eoS2P7E53iSdsx7L1ZktMhttps://video.igem.org/lazy-static/thumbnails/ac724fee-f1e3-4279-b8f2-50bf62d99d58.jpgSZU-China Software Usage Demonstration (2025)This is a video tutorial for the dsRNA computer-aided design system we created. Below is the wiki link for our SZU-China iGEM team for the year 2025: https://2025.igem.wiki/szu-china/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/12110931-913b-4679-9a7f-b84b346d575f/18c4d7ef-5cd1-4911-b282-aac26c2d2595-master.m3u8https://video.igem.org/videos/embed/3eoS2P7E53iSdsx7L1ZktM1530132025-10-02T05:12:05.545ZcourseDSRNAcomputerYES2025 TeamsNOhttps://video.igem.org/w/wbASNs1ZBKTDkxjyoVSU7whttps://video.igem.org/lazy-static/thumbnails/f489277b-e3f6-437d-9825-0c8fc94f4281.jpgOUC-Haide: Shaking (2025)OUC-Haide: Shaking (2025)https://static.igem.org/peertube/streaming-playlists/hls/f46d172c-7711-483e-bbc2-29b24387c6aa/e6a812e5-a80d-4102-9603-7c9381a4cdca-master.m3u8https://video.igem.org/videos/embed/wbASNs1ZBKTDkxjyoVSU7w7002025-10-02T05:16:06.093ZYES2025 TeamsNOhttps://video.igem.org/w/g819C8CBFxZeBCz4GH5nPihttps://video.igem.org/lazy-static/thumbnails/d6b477a4-a34a-447b-a8c2-d07a1a3fccd8.jpgOUC-Haide: stable (2025)OUC-Haide: stable (2025)https://static.igem.org/peertube/streaming-playlists/hls/7a7360be-d7a3-4c17-b547-11a6e3262b1b/50bda88a-9e6b-482c-8d5d-b089ee6b8ceb-master.m3u8https://video.igem.org/videos/embed/g819C8CBFxZeBCz4GH5nPi18002025-10-02T05:16:49.678ZYES2025 TeamsNOhttps://video.igem.org/w/iPKKLqrFUtKKZFbvLXnQf2https://video.igem.org/lazy-static/thumbnails/95b609b0-47ba-4283-8bf7-63ed284415a2.jpgMIT-MAHE: Pepper Foot Rot Dark Mode (2025)This animation shows the pepper foot rot disease in action. It has a dark background.https://static.igem.org/peertube/streaming-playlists/hls/90564775-177e-471e-968b-32710d0fc865/f53d6bf2-b2f9-478a-bce4-1feb2f1bcb2f-master.m3u8https://video.igem.org/videos/embed/iPKKLqrFUtKKZFbvLXnQf2170522025-10-02T06:09:05.925ZYES2025 TeamsNOhttps://video.igem.org/w/ahSHWxRBXgDC2LhRHvrNFShttps://video.igem.org/lazy-static/thumbnails/b0299f77-d204-46d7-9eac-9562cd9f8dec.jpgMIT-MAHE: Pepper Foot Rot Light Mode (2025)This animation shows the pepper foot rot disease in action. It has a light background.https://static.igem.org/peertube/streaming-playlists/hls/4b3d6851-292d-4813-9bac-a658563b8d18/0474721e-2dd3-4b0b-a203-1fceeccddd80-master.m3u8https://video.igem.org/videos/embed/ahSHWxRBXgDC2LhRHvrNFS170532025-10-02T06:10:03.841ZYES2025 TeamsNOhttps://video.igem.org/w/4sDuMFaDH4fTvFnTbqeXRihttps://video.igem.org/lazy-static/thumbnails/0b4d68f1-eafe-4e9b-b5cc-343b8d401ff8.jpgNAU-CHINA: Result1 (2025)NAU-CHINA: Result1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/1c03dca7-fc12-4b27-9c10-389d0b2e43ef/0147f1a2-0cdc-493c-a805-1ce3ecf045ca-master.m3u8https://video.igem.org/videos/embed/4sDuMFaDH4fTvFnTbqeXRi7052025-10-02T06:34:57.688ZYES2025 TeamsNOhttps://video.igem.org/w/pfHbVx8DLzwk1Gg31wQtf8https://video.igem.org/lazy-static/thumbnails/3ecf3625-0ad7-4b35-a9f3-efce53906ffe.jpgNAU-CHINA: Resultcomplex result (2025)NAU-CHINA: Resultcomplex result (2025)https://static.igem.org/peertube/streaming-playlists/hls/bc4ffc34-094e-475b-b3a0-4f8e518e335f/925fa8e1-0722-4458-b52c-ada0def962b1-master.m3u8https://video.igem.org/videos/embed/pfHbVx8DLzwk1Gg31wQtf84032025-10-02T06:36:50.456ZYES2025 TeamsNOhttps://video.igem.org/w/iAdooPFd1dZCE3dx4T1tjihttps://video.igem.org/lazy-static/thumbnails/7082ba6c-12f5-4252-a3f5-7d07d4e20986.jpgNAU-CHINA: cbm_rotation (2025)NAU-CHINA: cbm_rotation (2025)https://static.igem.org/peertube/streaming-playlists/hls/8e724752-7232-4285-8ba8-a9891e62b7c1/be3fcfba-2739-49e0-8724-e4bfeae7bfb4-master.m3u8https://video.igem.org/videos/embed/iAdooPFd1dZCE3dx4T1tji6032025-10-02T06:38:50.755ZYES2025 TeamsNOhttps://video.igem.org/w/e8iEVX2seFaECMMVwjisJBhttps://video.igem.org/lazy-static/thumbnails/fd046bd1-8e1b-41c3-9429-b667db768b38.jpgNAU-CHINA: bsla_rotation (2025)NAU-CHINA: bsla_rotation (2025)https://static.igem.org/peertube/streaming-playlists/hls/6a4be634-91b6-4e49-b866-4fed551d1897/f6d6a765-0702-4ae0-9d9a-f27caa1fb506-master.m3u8https://video.igem.org/videos/embed/e8iEVX2seFaECMMVwjisJB11012025-10-02T06:39:20.630ZYES2025 TeamsNOhttps://video.igem.org/w/gKCYbzAyV513dVD7Ycauu8https://video.igem.org/lazy-static/thumbnails/c1ee4eec-6246-479f-86a8-13d5f7588969.jpgNAU-CHINA: CBM (2025)NAU-CHINA: CBM (2025)https://static.igem.org/peertube/streaming-playlists/hls/7f90d842-0417-406b-9ab3-61dfc62dab67/9e7b3f73-0d8a-404f-ade7-489c7f5c0f44-master.m3u8https://video.igem.org/videos/embed/gKCYbzAyV513dVD7Ycauu84062025-10-02T06:40:09.079ZYES2025 TeamsNOhttps://video.igem.org/w/anjho5b1q8E6VRFACmwWa8https://video.igem.org/lazy-static/thumbnails/1f2c3621-8566-41c8-b800-5a56eac071e9.jpgNAU-CHINA: bsla (2025)NAU-CHINA: bsla (2025)https://static.igem.org/peertube/streaming-playlists/hls/4bdc2251-55bc-47e9-9fe4-c817e5dddd19/5c353ebd-b1e2-48e6-b82f-5061fd04c422-master.m3u8https://video.igem.org/videos/embed/anjho5b1q8E6VRFACmwWa84092025-10-02T06:40:48.150ZYES2025 TeamsNOhttps://video.igem.org/w/w9Nu5a1VjBFzj8WKZemBQJhttps://video.igem.org/lazy-static/thumbnails/4db767e6-0a1a-4003-be12-023d606c89ae.jpgSCUT-CHINA-L: For Nature, For Nurture -- The Wondrous Utilization of Marine Biomass (2025) [Chinese]Our team explains the application of marine biomass in synthesis in an easy-to-understand manner for middle school students. Starting with the presence of marine biomass in everyday items, we explore its uses in medicine, daily products, and eco-friendly materials. We also compare the differences between artificially produced skin and natural skin... illustrating how the ocean's treasure trove is closely connected to our lives, allowing the seeds of science education to take root and flourish in middle schools. https://static.igem.org/peertube/streaming-playlists/hls/f42cc1b9-a171-4b46-8bd5-ebc7e0706746/c8ad6bad-b85a-457d-9a32-ddc15fbc924b-master.m3u8https://video.igem.org/videos/embed/w9Nu5a1VjBFzj8WKZemBQJ729012025-10-02T07:28:24.477ZYES2025 TeamsNOhttps://video.igem.org/w/qDLd5t3zkwZXL7WTqMcQbShttps://video.igem.org/lazy-static/thumbnails/41f6bdf1-1b61-439c-b840-9c574cfc3168.jpgZJU-China: Voice of 413 Episode 1 (2025) [English]ZJU-China: Voice of 413 Episode 1 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c7a11774-240e-455a-afd9-b102a30e237e/d2f8d4b4-1c04-43f2-a742-831fe5dd81fb-master.m3u8https://video.igem.org/videos/embed/qDLd5t3zkwZXL7WTqMcQbS485022025-10-02T08:31:11.504ZYES2025 TeamsNOhttps://video.igem.org/w/6KW73iSv9waeg618m6fxc9https://video.igem.org/lazy-static/thumbnails/24f39994-aba1-4b02-95f8-0d2b4e42b8b6.jpgAFMU-China: Team (2025)AFMU-China: Team (2025)https://static.igem.org/peertube/streaming-playlists/hls/2ea004ad-2d09-4e0b-9471-a0a126d60ca2/0019baef-5de0-432b-9449-2daa2040f969-master.m3u8https://video.igem.org/videos/embed/6KW73iSv9waeg618m6fxc9390462025-10-02T08:27:44.320ZYES2025 TeamsNOhttps://video.igem.org/w/pJAMiXLLodTmo34H5qj5sthttps://video.igem.org/lazy-static/thumbnails/9165a521-58e5-46e0-bf98-d75c673661b2.jpgAustin-UTexas: cyanosense-home-cover (2025)Skyline view of Austin, TX. Filmed by Jose Martinez-McIntosh. https://2025.igem.wiki/austin-utexas/ https://static.igem.org/peertube/streaming-playlists/hls/c034dcb8-ec6a-4de9-a2c6-b673ad11071f/19cc39ba-286b-4b39-986f-bc9ac8183497-master.m3u8https://video.igem.org/videos/embed/pJAMiXLLodTmo34H5qj5st401032025-10-02T08:31:08.486ZYES2025 TeamsNOhttps://video.igem.org/w/m2115jpACjQsrndX83euFNhttps://video.igem.org/lazy-static/thumbnails/7df94f9d-c12b-45e0-906e-219d29005810.jpgOUC-Haide: old shaking (2025)OUC-Haide: old shaking (2025)https://static.igem.org/peertube/streaming-playlists/hls/a21a848b-f73b-4554-a66c-79aeca891b3c/2c42a4cf-3665-47fa-a0ca-f01e0a3c6694-master.m3u8https://video.igem.org/videos/embed/m2115jpACjQsrndX83euFN5002025-10-02T08:31:21.886ZYES2025 TeamsNOhttps://video.igem.org/w/sn9yvwaUzQthsLVnM3NPdrhttps://video.igem.org/lazy-static/thumbnails/536f1deb-031e-4fb9-a619-2be62b36f39b.jpgOUC-Haide: New-shaking (2025)OUC-Haide: New-shaking (2025)https://static.igem.org/peertube/streaming-playlists/hls/d5817ffb-14ef-4b1c-9494-19bc2a813e9d/9f79d63c-a70f-469c-924e-2333a455ce78-master.m3u8https://video.igem.org/videos/embed/sn9yvwaUzQthsLVnM3NPdr4022025-10-02T08:32:17.034ZYES2025 TeamsNOhttps://video.igem.org/w/tz9ds679Up1pvMUXgoSScEhttps://video.igem.org/lazy-static/thumbnails/0c84143c-db78-4270-a7cf-7bfeeb35d199.jpgAFMU-China: animation display (2025) [English]AFMU-China: animation display (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/df4759c6-baf4-44b2-87ab-22c19ad817fc/5ce5fc24-9efc-4e12-9553-e4a0ea4d312e-master.m3u8https://video.igem.org/videos/embed/tz9ds679Up1pvMUXgoSScE200052025-10-02T08:51:54.479ZYES2025 TeamsNOhttps://video.igem.org/w/7hZfdZKxjvK17PhZBbLtomhttps://video.igem.org/lazy-static/thumbnails/78fa4b49-bab7-4d89-9d04-20cc6f9ddf44.jpgUCLouvain: inclusivity teaser (2025) [English]We created a series of videos about inclusivity in science to demonstrate that it is possible to be a scientist regardless of your background. They are about 20-30 minutes each. Here is the teaser.https://static.igem.org/peertube/streaming-playlists/hls/32f602cb-43f0-4af9-9eeb-b70fd96f1d7c/8cbc56ee-a447-4424-9b0b-da8808c55e5a-master.m3u8https://video.igem.org/videos/embed/7hZfdZKxjvK17PhZBbLtom38052025-10-02T09:01:26.885ZYES2025 TeamsNOhttps://video.igem.org/w/68nTyF4nfVx8tdgJjyyo3Ahttps://video.igem.org/lazy-static/thumbnails/242750da-063d-4772-a02b-0ac23d0c780b.jpgZJU-China: Voice of 413 Episode 2 (2025) [English]ZJU-China: Voice of 413 Episode 2 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/298563a7-d51d-45ef-b382-f8b25cb29fee/6d9b7ddc-6a54-429d-8292-994ec48aa418-master.m3u8https://video.igem.org/videos/embed/68nTyF4nfVx8tdgJjyyo3A454012025-10-02T09:15:45.603ZYES2025 TeamsNOhttps://video.igem.org/w/msDBYeUEnMoDa54rQDVC8dhttps://video.igem.org/lazy-static/thumbnails/ea4db6a7-cefb-48f1-99c5-38d09960a445.jpgUCLouvain: figure-handbook (2025)We made a handbook about our bacterial strain *Streptococcus Thermophilus*. Here is one animated figure for the handbook.https://static.igem.org/peertube/streaming-playlists/hls/a5af4ba3-fe1f-41db-be8a-d5e70c55d40a/90f5cda3-9c9e-4fa7-b2c7-3349638d5e77-master.m3u8https://video.igem.org/videos/embed/msDBYeUEnMoDa54rQDVC8d33072025-10-03T10:52:35.401ZYES2025 TeamsNOhttps://video.igem.org/w/rjRKZg4rfhttPwePKo5Jr2https://video.igem.org/lazy-static/thumbnails/1dec7827-d67c-44f7-b7b8-4df54dbec35e.jpgIISER Berhampur: Team Logo Reveal (2025)This video is a presentation of the official logo reveal of the iGEM team of IISER Berhampur. -- Wiki link: https://2025.igem.wiki/iiser-berhampur/ -- Credit, Copyright & Creation Information : This is an original video.https://static.igem.org/peertube/streaming-playlists/hls/cd1684e1-5ac7-447e-ae17-4cc86461edb3/de0db778-878f-4bdc-90e0-b636e7549002-master.m3u8https://video.igem.org/videos/embed/rjRKZg4rfhttPwePKo5Jr211022025-10-03T12:08:10.379ZYES2025 TeamsNOhttps://video.igem.org/w/sY5L9XreGAqbQNckEizYHZhttps://video.igem.org/lazy-static/thumbnails/6d698d76-1117-4e24-bd8e-06907fc42f21.jpgAFCM-Egypt: Kids song 1 (2025) [English]AFCM-Egypt: Kids song 1 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/da6230c6-37e0-4b9e-a1c0-9754a0a29c9b/4d345f9e-c2b0-43b1-bbe3-005b13418b54-master.m3u8https://video.igem.org/videos/embed/sY5L9XreGAqbQNckEizYHZ132062025-10-03T10:27:10.450ZYES2025 TeamsNOhttps://video.igem.org/w/1YVzymCq85P38uZdjGRXHZhttps://video.igem.org/lazy-static/thumbnails/d2425039-ddae-4473-9f42-ccdc16e84998.jpgAFCM-Egypt: Kids song 2 (2025) [English]AFCM-Egypt: Kids song 2 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/07f2ab8b-5f35-4021-bec5-4bbc96b58127/a065fddd-e8ae-4ccd-ae04-8be252d231f2-master.m3u8https://video.igem.org/videos/embed/1YVzymCq85P38uZdjGRXHZ183052025-10-03T10:54:55.754ZYES2025 TeamsNOhttps://video.igem.org/w/6Ca88tdfCo9714mxLJQyqfhttps://video.igem.org/lazy-static/thumbnails/0258d44b-b6ec-47bd-a4d6-733dd5fbf8c9.jpgAFCM-Egypt: Adult song (2025) [English]AFCM-Egypt: Adult song (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/2d8a1759-bbbd-4678-89c8-64ef143d7c5e/dd41e7e9-b4ea-4480-a58e-e4e93f8c3b89-master.m3u8https://video.igem.org/videos/embed/6Ca88tdfCo9714mxLJQyqf135052025-10-03T11:09:02.582ZYES2025 TeamsNOhttps://video.igem.org/w/qqGncUYME6efQ4bXsHfninhttps://video.igem.org/lazy-static/thumbnails/155d637a-a4b6-4377-8ef1-f5e50f0db170.jpgUCLouvain: Dietician's opinion about our project (2025) [English]UCLouvain: Dietician's opinion about our project (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c5ce0df4-6f30-48a4-807a-5a9119d5e3a3/1272c069-2cc3-4a34-b289-42eb2d56d7f0-master.m3u8https://video.igem.org/videos/embed/qqGncUYME6efQ4bXsHfnin34052025-10-03T10:26:16.833ZYES2025 TeamsNOhttps://video.igem.org/w/1kWhreaarC4k57rzBZD8FThttps://video.igem.org/lazy-static/thumbnails/ac26bc04-e410-4aa9-8ec6-6f9c2e46e588.jpgUtrecht: Anterior Gut fli:GFP + GB8 (2025)Video for the wiki https://2025.igem.wiki/utrecht/https://static.igem.org/peertube/streaming-playlists/hls/02c895be-9f4c-4267-a751-ebd2f8bdf0fd/df220f1b-5000-41d9-aaab-5019c77fff87-master.m3u8https://video.igem.org/videos/embed/1kWhreaarC4k57rzBZD8FT150112025-10-03T09:50:50.650ZYES2025 TeamsNOhttps://video.igem.org/w/acJvxyZbAwVYo2NVkaVHQmhttps://video.igem.org/lazy-static/thumbnails/17460892-5447-44b7-b532-2416b5125dc3.jpgUtrecht: Middle Gut fli:GFP + GB8 (2025)Video for the wiki https://2025.igem.wiki/utrecht/https://static.igem.org/peertube/streaming-playlists/hls/4a85a072-9b8b-44b9-8191-1c93d411f3b0/b9e28d2b-eef0-46fd-b45a-215a8e6a3cd9-master.m3u8https://video.igem.org/videos/embed/acJvxyZbAwVYo2NVkaVHQm15062025-10-03T10:26:05.337ZYES2025 TeamsNOhttps://video.igem.org/w/9SZuCTuYnJmBo4zUh22zTyhttps://video.igem.org/lazy-static/thumbnails/6f196cbd-9302-4217-95d1-8ae3a55dd644.jpgUtrecht: Posterior Gut fli:GFP + GB8 (2025)Video for the wiki https://2025.igem.wiki/utrecht/https://static.igem.org/peertube/streaming-playlists/hls/47e7bac3-8bee-4d10-aaa0-f9809ded290a/b6087ab6-f440-4a8d-94c6-afb4599f6611-master.m3u8https://video.igem.org/videos/embed/9SZuCTuYnJmBo4zUh22zTy15062025-10-03T10:52:44.608ZYES2025 TeamsNOhttps://video.igem.org/w/32aikiqbohxGGpLNNLWhUbhttps://video.igem.org/lazy-static/thumbnails/c3ed0022-c92f-469e-858e-dfe6edd0a7ff.jpgUCLouvain: Pediatrician's opinion about if she would buy our product (2025) [English]UCLouvain: Pediatrician's opinion about if she would buy our product (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/105bc06f-afce-448d-b874-21ce93ec7082/c82dde4a-f62a-4d0f-b422-4e07b6a60cd8-master.m3u8https://video.igem.org/videos/embed/32aikiqbohxGGpLNNLWhUb21012025-10-03T10:26:19.691ZYES2025 TeamsNOhttps://video.igem.org/w/dTvxhjF22D8dcRGjMkhrPohttps://video.igem.org/lazy-static/thumbnails/4093c589-cb5c-4ccb-841d-66b686710593.jpgUCLouvain: Pediatrician's opinion about if she would buy our product (2025) [English]UCLouvain: Pediatrician's opinion about if she would buy our product (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/685eccea-66c3-4972-a09c-a29ab1201690/5f0882c6-e9e5-4045-aa50-ba4506dd5a66-master.m3u8https://video.igem.org/videos/embed/dTvxhjF22D8dcRGjMkhrPo21062025-10-03T10:52:59.990ZYES2025 TeamsNOhttps://video.igem.org/w/5oZ59c3Kp7aj2J4LWsGaByhttps://video.igem.org/lazy-static/thumbnails/3bd140e5-cf5f-4b01-bb50-25c66d832681.jpgUSP-Brazil: Araguaia Mission: Accessible Synthetic Biology for All (2025) [Portuguese]Araguaia Mission: Accessible Synthetic Biology for All introduces an innovative educational initiative that makes science accessible to visually impaired students. Through hands-on experiments, tactile models, and inclusive teaching methods, the project brings synthetic biology closer to communities that are often excluded from STEM education. The video highlights our mission to democratize biotechnology, foster curiosity, and empower blind learners to actively participate in science and innovation.https://static.igem.org/peertube/streaming-playlists/hls/239a16cd-f2e4-40f0-9113-865104d45e72/82bed60f-8d45-4a55-a38c-903c18acf6a6-master.m3u8https://video.igem.org/videos/embed/5oZ59c3Kp7aj2J4LWsGaBy3110302025-10-03T10:04:50.847ZInclusivityYES2025 TeamsNOhttps://video.igem.org/w/eoxiC2HpLbgxJ7td1MQSpahttps://video.igem.org/lazy-static/thumbnails/0127db71-92f2-43a1-ba15-e68bcbf80c58.jpgVIT-Vellore: Project Audiobook (2025) [English]Second Audiobook of the series. https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/6c6c7509-c8b5-422a-b693-7a3605b90e17/8e116671-de79-41cf-a785-b693b0a7ec6f-master.m3u8https://video.igem.org/videos/embed/eoxiC2HpLbgxJ7td1MQSpa587002025-10-03T10:05:25.772ZYES2025 TeamsNOhttps://video.igem.org/w/kF5EgCuw6nGmLzjL6BaQvuhttps://video.igem.org/lazy-static/thumbnails/b7e41d80-43a8-4c4d-9157-07cc87c4f920.jpgSHSID: Podcast (2025) [English]SHSID: Podcast (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/9f528366-a408-4920-b1f4-04194d0e4726/26584859-fa77-4c4b-abd7-171fddf59744-master.m3u8https://video.igem.org/videos/embed/kF5EgCuw6nGmLzjL6BaQvu632012025-10-03T11:47:23.970ZYES2025 TeamsNOhttps://video.igem.org/w/eX6kVKDrvFCDUymSBWnPnfhttps://video.igem.org/lazy-static/thumbnails/d2152ad9-5790-4502-94c9-f78a06f6ccad.jpgMunich: linux-local installation (2025) [English]installation guide for installing iGEM Munich 2025 MESA Designer locally on a Linux Machine. https://2025.igem.wiki/munich/https://static.igem.org/peertube/streaming-playlists/hls/70f800c5-d65e-41af-9c2d-c4f694ac2074/d0d745ab-5115-42a9-b2c9-d690df94cca8-master.m3u8https://video.igem.org/videos/embed/eX6kVKDrvFCDUymSBWnPnf462072025-10-03T10:13:58.052ZInkSightiGEM Munich 2025iGEM MunichinstallationYES2025 TeamsNOhttps://video.igem.org/w/nLGBBKi1PKLb5F19W978Gyhttps://video.igem.org/lazy-static/thumbnails/9cf42062-1ab0-40d8-93da-fde0b5f0cbc3.jpgVIT-Vellore: Beyond Genetic Engineering - What is Synthetic Biology Really (2025) [English]When you hear synthetic biology, do you immediately think of gene editing or CRISPR? You're not alone. But there's so much more to this emerging field. In our first episode, we break down the common myth that synthetic biology is just genetic engineering. Join us as we explore how synthetic biology spans from designing biological circuits and cellular logic to creating novel biomaterials and computational modeling of life. https://2025.igem.wiki/vit-vellore/https://static.igem.org/peertube/streaming-playlists/hls/b04daac3-f30d-4ee6-ba87-19742c65735c/98718900-7d7f-47e0-afc6-d5a32b79805e-master.m3u8https://video.igem.org/videos/embed/nLGBBKi1PKLb5F19W978Gy1058022025-10-03T10:35:38.593ZYES2025 TeamsNOhttps://video.igem.org/w/qUXbiBfDe8ubQeyvDtK9YEhttps://video.igem.org/lazy-static/thumbnails/f2dff64d-28b4-4e0e-952b-fb5e19d3ff0d.jpgIISER-Berhampur: Botcast - discussing Project POSEIDON (2025) [English]This video is a short AI voice enabled video of two bots talking to each other about our Project. -- Wiki link: https://2025.igem.wiki/iiser-berhampur/ -- Credit, Copyright & Creation Information : This is an original video. Elements - Pixabey free to use elements, edited in Capcut. Background audio - Bot Voice - made from Google notebook LM (audio overview on personalised content feed)https://static.igem.org/peertube/streaming-playlists/hls/c9c00220-d55c-4dc1-87b0-1377d9fcc5be/689e8320-42d8-478e-bb1f-f1472e04f940-master.m3u8https://video.igem.org/videos/embed/qUXbiBfDe8ubQeyvDtK9YE768012025-10-03T12:29:01.264ZYES2025 TeamsNOhttps://video.igem.org/w/jpBt6K3FUA3WUixN7HFg6yhttps://video.igem.org/lazy-static/thumbnails/2533e115-f99b-4afe-945e-0ab6196a92bd.jpgRPTU-Kaiserslautern: Main-MRT (2025)Video for Main Page Video From Michael P. Hartung https://radiopaedia.org/?lang=us">Radiopaedia.orghttps://static.igem.org/peertube/streaming-playlists/hls/951075c5-6622-4090-81da-72d4a99621c6/3e8c34a8-a44a-4801-b1a1-eaf7bdf23eb0-master.m3u8https://video.igem.org/videos/embed/jpBt6K3FUA3WUixN7HFg6y1201762025-10-03T10:05:34.001ZYES2025 TeamsNOhttps://video.igem.org/w/h9xKzFegKvCpd1LYwVyBzFhttps://video.igem.org/lazy-static/thumbnails/29c08671-e069-44b9-9a4c-1612c6ddeb0a.jpgBUCT: Podcast 1 (2025) [English]Podcast 1 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/82c3bc78-3550-4051-bad6-179225bfe59d/45d6b375-0fa1-4d3a-bc20-1a8b0046ba40-master.m3u8https://video.igem.org/videos/embed/h9xKzFegKvCpd1LYwVyBzF160022025-10-03T10:20:10.128ZYES2025 TeamsNOhttps://video.igem.org/w/gu66mciE23rcoJMPTSTnPchttps://video.igem.org/lazy-static/thumbnails/d2724271-a5c8-4288-9d55-558fe3e0361f.jpgBUCT: Podcast 2 (2025) [English]Podcast 2 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/7d650b2c-5f8e-441d-9bf2-00e62fd008dd/8b534029-11ba-4a60-8e7f-25d6ba5113a3-master.m3u8https://video.igem.org/videos/embed/gu66mciE23rcoJMPTSTnPc264002025-10-03T10:47:41.197ZYES2025 TeamsNOhttps://video.igem.org/w/7ao1Pc3j3sYe5SBwt1cj1Thttps://video.igem.org/lazy-static/thumbnails/219145b5-8a54-4bff-984c-35446476bd75.jpgBUCT: Podcast 3 (2025) [English]Podcast 3 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/31e617af-2d74-4963-aaaf-1b5bff1eed53/c46ad271-deeb-470a-8c4c-81705e9bc8e0-master.m3u8https://video.igem.org/videos/embed/7ao1Pc3j3sYe5SBwt1cj1T191002025-10-03T11:07:00.582ZYES2025 TeamsNOhttps://video.igem.org/w/sVa6m4QrPiz9hK6ayd8T6shttps://video.igem.org/lazy-static/thumbnails/b298d040-2845-498d-b526-9b9c9124d91e.jpgBUCT: Podcast 4 (2025) [English]Podcast 4 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/d9f9a0d3-01a9-4959-8c42-9857c42a9700/a09e65db-39e2-47f3-b100-4a3d68f6ddad-master.m3u8https://video.igem.org/videos/embed/sVa6m4QrPiz9hK6ayd8T6s186002025-10-03T11:23:10.578ZYES2025 TeamsNOhttps://video.igem.org/w/3LPjXXuj7h8CywvzLx4Pwmhttps://video.igem.org/lazy-static/thumbnails/d80b3bd8-5c7f-418d-938a-2eae78c8eda2.jpgBUCT: Podcast 5 (2025) [English]Podcast 5 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/16742b63-7f40-43db-b0a8-acea77c55024/1ebac11e-d335-49f2-94ce-673a7feb1457-master.m3u8https://video.igem.org/videos/embed/3LPjXXuj7h8CywvzLx4Pwm273012025-10-03T11:32:32.696ZYES2025 TeamsNOhttps://video.igem.org/w/nxMx4r6Mz51JMPmhXqaB9fhttps://video.igem.org/lazy-static/thumbnails/f6c8afed-a702-41d6-9912-515e2a737401.jpgBUCT: Podcast 1 (2025) [Chinese]Podcast 1 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/ae8007ee-599d-46cd-a660-6b1829999712/825f0de7-a10a-42a1-907d-234ea6924ad9-master.m3u8https://video.igem.org/videos/embed/nxMx4r6Mz51JMPmhXqaB9f178012025-10-03T11:33:28.944ZYES2025 TeamsNOhttps://video.igem.org/w/9u1NnzZFgcDrLbLLGbEAwBhttps://video.igem.org/lazy-static/thumbnails/1411c695-94eb-4794-a356-05812a3d71a7.jpgBUCT: Podcast 2 (2025) [Chinese]Podcast 2 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/44b26d74-b020-4928-85d6-2a2f63f84a47/2b299ec9-f550-4570-85b3-d5dd84900977-master.m3u8https://video.igem.org/videos/embed/9u1NnzZFgcDrLbLLGbEAwB283002025-10-03T11:42:42.223ZYES2025 TeamsNOhttps://video.igem.org/w/3eqg7xYP1PLCPVtp57QsLRhttps://video.igem.org/lazy-static/thumbnails/29d6f708-2f16-454d-8d67-8493cb50c089.jpgBUCT: Podcast 3 (2025) [Chinese]Podcast 3 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/1211e5be-635b-4d7a-b66c-e7df90f8f271/65ba77d0-9400-4003-959c-bdac2436bf22-master.m3u8https://video.igem.org/videos/embed/3eqg7xYP1PLCPVtp57QsLR253002025-10-03T12:04:35.103ZYES2025 TeamsNOhttps://video.igem.org/w/eDNuc4An3gnBwEJBbFKixkhttps://video.igem.org/lazy-static/thumbnails/fc47fec3-2dda-4919-9dbd-da492cab1ee8.jpgBUCT: Podcast 4 (2025) [Chinese]Podcast 4 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/6e8df859-66f8-4766-8a8b-f76c01c8eaa5/21401c7e-e19e-4343-bdce-934eb967660f-master.m3u8https://video.igem.org/videos/embed/eDNuc4An3gnBwEJBbFKixk219012025-10-03T12:05:25.116ZYES2025 TeamsNOhttps://video.igem.org/w/m3EaCRsufY3Nw7ZA83SvUvhttps://video.igem.org/lazy-static/thumbnails/3c2a92f3-c4c6-4145-8dae-c4d8f944f9a7.jpgRPTU-Kaiserslautern: Main-Page-bg (2025)Background video for main page section #1https://static.igem.org/peertube/streaming-playlists/hls/a255c80d-3503-4685-92ff-4ed10b185b49/ea419a23-c9a9-49e5-b6f6-c74b43faff91-master.m3u8https://video.igem.org/videos/embed/m3EaCRsufY3Nw7ZA83SvUv2003712025-10-03T10:34:44.020ZYES2025 TeamsNOhttps://video.igem.org/w/jFJt2jezANpHRcKtCxj8Ythttps://video.igem.org/lazy-static/thumbnails/5d9e8459-9836-4e63-b9bf-a20ae85e738c.jpgBUCT: Podcast 5 (2025) [Chinese]Podcast 5 [buct](https://2025.igem.wiki/buct)https://static.igem.org/peertube/streaming-playlists/hls/9750ac67-9353-4eae-997d-1a65f4be2c47/bec976e2-af4b-4d96-bd05-d2c52082fde3-master.m3u8https://video.igem.org/videos/embed/jFJt2jezANpHRcKtCxj8Yt314012025-10-03T12:14:23.691ZYES2025 TeamsNOhttps://video.igem.org/w/pJYGz4QEwaYPKcehdt46FFhttps://video.igem.org/lazy-static/thumbnails/b5423221-c00a-4cf8-8e69-292b076eb370.jpgFHS-NB-ZJ-China: Spark (2025)The posters we encountered at CCiC 2025 inspired us greatly.https://static.igem.org/peertube/streaming-playlists/hls/c0425eac-6f64-4b8f-81e7-b26048291ed9/81161d9b-2dd9-43c6-92ef-3616c549566f-master.m3u8https://video.igem.org/videos/embed/pJYGz4QEwaYPKcehdt46FF40062025-10-03T11:09:11.341ZYES2025 TeamsNOhttps://video.igem.org/w/jPU5VJ3Sn3XL1zTVHXLBu5https://video.igem.org/lazy-static/thumbnails/6d86c64f-ae1e-406a-a6ee-cf1f3c9c69ba.jpgMunich: windockes-docker installation guide (2025) [English]Installation guide for iGEM Munich 2025 InkSight's MESA Designer for windows docker. https://2025.igem.wiki/munich/https://static.igem.org/peertube/streaming-playlists/hls/98748d32-8563-4bbc-a39d-2d60d707c1f8/df3125df-93b0-418b-8034-3d9cfa2dc339-master.m3u8https://video.igem.org/videos/embed/jPU5VJ3Sn3XL1zTVHXLBu5766062025-10-03T10:49:54.592ZInstallationInkSightiGEM Munich 2025iGEM MunichYES2025 TeamsNOhttps://video.igem.org/w/eeGxqwNTfo7uQoYrLZLQ71https://video.igem.org/lazy-static/thumbnails/b3ee5e19-12ea-44f6-bbbb-4475993d1f56.jpgOUC-Haide: Demonstrating the operation of a peristaltic pump (2025)Video demonstrating the operation of a peristaltic pump https://static.igem.org/peertube/streaming-playlists/hls/6b3074d3-1ecd-4522-b979-8559dfc7b54c/94f165b0-e717-437b-b63c-a2b817dc81f8-master.m3u8https://video.igem.org/videos/embed/eeGxqwNTfo7uQoYrLZLQ71190112025-10-03T10:50:40.811ZOperation demonstrationperistaltic pumpYES2025 TeamsNOhttps://video.igem.org/w/jtm8cqnq9632Um5ueMjL7qhttps://video.igem.org/lazy-static/thumbnails/a3db8c36-b43f-47df-8cd4-df92c6aa645c.jpgOUC-Haide: Example of Using Magnetic Stirrer (2025)Example of using a magnetic stirrer. To ensure a clear and easily observable effect, while also saving the gel, we used water for the operation demonstration.https://static.igem.org/peertube/streaming-playlists/hls/9595fac5-975f-4932-9599-501028faf864/83419c78-a918-4125-af3a-306d0660cbbb-master.m3u8https://video.igem.org/videos/embed/jtm8cqnq9632Um5ueMjL7q16082025-10-03T11:06:57.602ZOperation demonstrationmagnetic stirrerYES2025 TeamsNOhttps://video.igem.org/w/fi9ycSUPLpmMK6iZd56kZ9https://video.igem.org/lazy-static/thumbnails/dd9c310d-5358-45b1-9a6a-467aa73a72df.jpgMIT-MAHE: Zoospores at 100x Magnification (2025)This video shows *P. capsici* zoospores moving at 100x magnification. It was captured using an upright trinocular phase contrast microscope.https://static.igem.org/peertube/streaming-playlists/hls/73c4db91-c5c0-4f7a-8c74-be6e585d3ee6/b236e13f-2ca7-4448-b875-59274fe42d7b-master.m3u8https://video.igem.org/videos/embed/fi9ycSUPLpmMK6iZd56kZ992032025-10-03T11:06:43.232ZYES2025 TeamsNOhttps://video.igem.org/w/qWGdTRKRXVqDwhehS3oqabhttps://video.igem.org/lazy-static/thumbnails/564f5382-c97a-45ad-aca1-5f05167f0939.jpgAustin-UTexas: Lady Bird Lake Interviews Day 1 (2025) [English]Members of our iGEM team went out to Lady Bird Lake in Austin, Texas to interview local residents about the harmful algal blooms that occur in the lake and surrounding areas. Filmed by Tess Driscoll with members Zaynab Bashir and Nithya Vegiraju. Edited by Jose Martinez-McIntosh. (Team Wiki: https://2025.igem.wiki/austin-utexas/)https://static.igem.org/peertube/streaming-playlists/hls/c9fe4780-3938-4928-ae76-72442672dcc4/4e847a14-4185-4c58-a933-8d1e8ebf981a-master.m3u8https://video.igem.org/videos/embed/qWGdTRKRXVqDwhehS3oqab107072025-10-03T10:28:41.472ZYES2025 TeamsNOhttps://video.igem.org/w/2jDeDSzqnWTVF7pwuYUgjwhttps://video.igem.org/lazy-static/thumbnails/40d0a7be-2359-4114-a8cc-05c098e0491d.jpgMIT-MAHE: Acetic Acid Treated Zoospores at 100x Magnification (2025)This video shows *P. capsici* zoospores treated with 1% acetic acid, at 100x magnification. It was captured using an upright trinocular phase contrast microscope.https://static.igem.org/peertube/streaming-playlists/hls/0ab37941-0002-4301-963d-50af157b676e/bdb0d4a6-f6b5-49c2-a3a6-8c2ebc1b101f-master.m3u8https://video.igem.org/videos/embed/2jDeDSzqnWTVF7pwuYUgjw46012025-10-03T11:09:23.318ZYES2025 TeamsNOhttps://video.igem.org/w/km8TRQDvzCcm6j3mmwcKcHhttps://video.igem.org/lazy-static/thumbnails/86c1a973-e775-4450-97a3-33d634079e7d.jpgMIT-MAHE: Nanoparticle Treated Zoospores at 100x Magnification (2025)This video shows *P. capsici* zoospores treated with 0.1% chitosan nanoparticles, at 100x magnification. It was captured using an upright trinocular phase contrast microscope.https://static.igem.org/peertube/streaming-playlists/hls/9cad5ff7-5278-4191-ad5a-c80b95c49dcb/91c923ee-f88b-49b5-b0c3-6744c2c8e9aa-master.m3u8https://video.igem.org/videos/embed/km8TRQDvzCcm6j3mmwcKcH63022025-10-03T11:12:43.344ZYES2025 TeamsNOhttps://video.igem.org/w/614dj5JSJMhbr3iHK8b8cfhttps://video.igem.org/lazy-static/thumbnails/2110574d-ff57-45e0-9cc6-19c627ff5eb6.jpgZJU-China: Voice of 413 Episode 3 (2025) [English]ZJU-China: Voice of 413 Episode 3 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/287fac45-50b1-464e-9ac7-c9e32907f828/ac789a18-f46b-4cc1-9f78-6a3bc64d0534-master.m3u8https://video.igem.org/videos/embed/614dj5JSJMhbr3iHK8b8cf705022025-10-03T11:27:19.054ZYES2025 TeamsNOhttps://video.igem.org/w/vefey149Jf5gNC4tBiGEmVhttps://video.igem.org/lazy-static/thumbnails/2d3d8613-573a-48f4-8a30-3682ddf9f9f0.jpgAustin-UTexas: Lady Bird Lake Interviews Day 2 (2025) [English]Members of our iGEM team went out to Lady Bird Lake in Austin, Texas to interview local residents about the harmful algal blooms that occur in the lake and surrounding areas. Filmed and edited by Jose Martinez-McIntosh with members Zaynab Bashir and Ahnsa Campbell. (Team Wiki: https://2025.igem.wiki/austin-utexas/)https://static.igem.org/peertube/streaming-playlists/hls/ecb27642-4354-4b78-9caf-2a4b4b115585/73ead418-68f3-46ea-b48e-ac94c8da8344-master.m3u8https://video.igem.org/videos/embed/vefey149Jf5gNC4tBiGEmV112032025-10-03T11:06:41.515ZYES2025 TeamsNOhttps://video.igem.org/w/kPq41g9Zo2bMhn7i1dHxsPhttps://video.igem.org/lazy-static/thumbnails/7fa4e1e6-e922-4d3d-8a45-10e5fd539c72.jpgCSU-CHINA: Synprotease (2025) [English]This video is to introduce Synprotease software Highlights, Features and Use Process.https://static.igem.org/peertube/streaming-playlists/hls/a07c6a07-a7a5-4424-8834-729367b09cd7/39bb437a-984c-4c5c-95c1-b8c40b2eb140-master.m3u8https://video.igem.org/videos/embed/kPq41g9Zo2bMhn7i1dHxsP1685372025-10-03T10:18:37.670ZYES2025 TeamsNOhttps://video.igem.org/w/1uvySso439QdrFrF79FGhjhttps://video.igem.org/lazy-static/thumbnails/106b92aa-6411-48b4-b695-daf8b36379ce.jpgHK-Joint-School: Software Introduction (2025) [English]Introduction Video for Software - PestiGuard Biosensor Analysis Platformhttps://static.igem.org/peertube/streaming-playlists/hls/03fb0bf4-8b76-41dc-9af2-fa91bc2472ea/6a12d0b2-7ed6-469e-ad2e-ef99e622abe4-master.m3u8https://video.igem.org/videos/embed/1uvySso439QdrFrF79FGhj1100332025-10-03T10:52:23.069ZYES2025 TeamsNOhttps://video.igem.org/w/tWriVAovpeo7hbxCfxYAa9https://video.igem.org/lazy-static/thumbnails/5d885aad-a3b9-4be3-9a33-a0550457fc6f.jpgUBC-Vancouver: Bioreactor Tutorial (2025) [English]Tutorial video for using our *Caulobacter* Bioreactor [UBC-Vancouver Wiki](https://2025.igem.wiki/ubc-vancouver/)https://static.igem.org/peertube/streaming-playlists/hls/e2408130-8411-4991-ac62-cbbeb97f05ca/3e3863a3-07a1-4f8c-b28c-701f400d1764-master.m3u8https://video.igem.org/videos/embed/tWriVAovpeo7hbxCfxYAa9279062025-10-03T12:20:57.789Zubc-vancouverYES2025 TeamsNOhttps://video.igem.org/w/e1qA6UHT5VJC8njw3kV2Hjhttps://video.igem.org/lazy-static/thumbnails/a152fb73-6e53-4a0d-8634-0e08f347d55c.jpgJapan scinet: ESCAP GAME (2025) [Japanese]### 🎥 Escape Game Activity from the Education Program This video is provided as part of our **Contribution** to the iGEM community. It showcases an educational activity we organized during our university festival. The event was an **escape game** designed and executed by our team, where participants had to escape from a laboratory after a simulated **virus leak**. The video is filmed from the **participant's perspective**, offering a clear view of how we engage the public in synthetic biology through interactive and immersive experiences. 📎 Learn more on our [team wiki](https://2025.igem.wiki/japan-scinet/index.html) https://static.igem.org/peertube/streaming-playlists/hls/6955f498-6b18-4232-9aa1-d930e3efd7b8/ae97b44e-3a30-42ec-8404-72e15f64d09d-master.m3u8https://video.igem.org/videos/embed/e1qA6UHT5VJC8njw3kV2Hj4330182025-10-03T10:36:41.026ZYES2025 TeamsNOhttps://video.igem.org/w/8bckR372WgerjpnapYYkABhttps://video.igem.org/lazy-static/thumbnails/7b766242-55ca-4c70-97e6-bc4cd2395a3c.jpgSR-Shenzhen: Family (2025) [Chinese]This is a classic public service advertisement titled "Family". This public service advertisement gave us great inspiration, making me start paying attention to my parents and initiating a topic related to anti-aging. This is our wiki address, https://2025.igem.wiki/sr-shenzhen/ https://static.igem.org/peertube/streaming-playlists/hls/3a1c65ee-e05f-4604-bff1-2ef0e68cc2e3/68016e97-61ea-48d7-8545-c9cd2950b594-master.m3u8https://video.igem.org/videos/embed/8bckR372WgerjpnapYYkAB99062025-10-03T10:22:46.039ZYES2025 TeamsNOhttps://video.igem.org/w/aCDfmsA2xnwaaboLrPbH7Jhttps://video.igem.org/lazy-static/thumbnails/d75a8845-c1d0-445f-9069-270997be6fce.jpgJiangnan-China: six school (2025) [Chinese]Jiangnan-China: six school (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/4dfffa6c-d6ce-48c1-a66b-1d5200a7166a/086d1f44-5748-4e1a-a95c-168016499334-master.m3u8https://video.igem.org/videos/embed/aCDfmsA2xnwaaboLrPbH7J1258032025-10-03T10:25:08.208ZYES2025 TeamsNOhttps://video.igem.org/w/64XdqYpMEGL1SbeSz69XJghttps://video.igem.org/lazy-static/thumbnails/857dad0a-6d3b-4d1b-b575-c3939c05d8b9.jpgAFMU-China: How far are we from conquering liver cancer? (2025) [Chinese]AFMU-China: How far are we from conquering liver cancer? (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/290af39e-eb61-4f22-a444-1d98c2a0177f/6cde04ba-1e97-48c4-94a7-7f25e44e167f-master.m3u8https://video.igem.org/videos/embed/64XdqYpMEGL1SbeSz69XJg429012025-10-03T10:24:56.916ZYES2025 TeamsNOhttps://video.igem.org/w/tQ6DRFnFyzUUBBASyc7cNghttps://video.igem.org/lazy-static/thumbnails/a61f6c67-38fc-4e05-a801-470c51a5cab4.jpgPuiChing-Macau: Issue showcase of our crack meter-based system (2025)This video showcases one of the major factors to why we did not end up using this system as our final one.https://static.igem.org/peertube/streaming-playlists/hls/e15dedaa-4127-4abc-b9e9-9c1633932a27/d973fe8e-6435-4fb4-80ff-7f9885ccc490-master.m3u8https://video.igem.org/videos/embed/tQ6DRFnFyzUUBBASyc7cNg10032025-10-03T10:25:26.492ZYES2025 TeamsNOhttps://video.igem.org/w/njbrK468hxT7wsekbPKrpbhttps://video.igem.org/lazy-static/thumbnails/6935adaa-b004-4c50-97b9-9b71858b3281.jpgPuiChing-Macau: Showcase of the camera-based system in action(Camera feed close up) (2025)This video provides a closer look at what the camera is doing.https://static.igem.org/peertube/streaming-playlists/hls/ac99bc67-e5fd-4a62-bf59-76c2676e55ec/3510ea05-dc87-4a19-84be-1e1810b18f47-master.m3u8https://video.igem.org/videos/embed/njbrK468hxT7wsekbPKrpb150102025-10-03T10:59:26.823ZYES2025 TeamsNOhttps://video.igem.org/w/ah94bJY7VayvFshsPsFY55https://video.igem.org/lazy-static/thumbnails/d9a16295-9b60-4e3e-88f7-833d59253ece.jpgPuiChing-Macau: Showcase of the camera-based system in action (2025)This video showcases the entire process of how our camera-based system works.https://static.igem.org/peertube/streaming-playlists/hls/4b231cbe-4f0e-439c-b6b1-e575adfca764/348bcbf8-a840-445e-b641-4b5877f29475-master.m3u8https://video.igem.org/videos/embed/ah94bJY7VayvFshsPsFY55130102025-10-03T11:12:31.915ZYES2025 TeamsNOhttps://video.igem.org/w/6MZ8ggZzFtCshQtHhv5BCVhttps://video.igem.org/lazy-static/thumbnails/3ca61eff-c343-4ad1-9e3f-2421bf1f642a.jpgJiangnan-China: six school2 (2025) [Chinese]Jiangnan-China: six school2 (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/2ee95e1c-9d9b-41d0-b4ca-fc59c000b579/6da66dd6-c44b-412b-b1b4-2445f7898a00-master.m3u8https://video.igem.org/videos/embed/6MZ8ggZzFtCshQtHhv5BCV3445002025-10-03T10:55:51.649ZYES2025 TeamsNOhttps://video.igem.org/w/qa92uxwb64MNWL47uz5QwVhttps://video.igem.org/lazy-static/thumbnails/70b6996d-db9c-4fd7-ac23-2a1df51e6a16.jpgPatras: Women's Voices: Surviving Sepsis (2025) [English]This short video raises awareness about sepsis through the voices of women survivors. Too often, their pain was dismissed. By listening to their experiences, we take a step toward inclusivity in healthcare and toward recognizing that sepsis is not just a medical emergency, but a lasting struggle. All participants gave informed consent. Will be embedded in https://2025.igem.wiki/patras/https://static.igem.org/peertube/streaming-playlists/hls/c3a1f7c1-b294-4428-98b8-86b2d55a2ff1/b416de2a-a6f3-46a5-976c-8063dd44a2e5-master.m3u8https://video.igem.org/videos/embed/qa92uxwb64MNWL47uz5QwV102072025-10-03T11:08:50.506ZYES2025 TeamsNOhttps://video.igem.org/w/c4pYZNzWnDheof72pL5wKRhttps://video.igem.org/lazy-static/thumbnails/96bf351c-019d-464d-96a5-4260c8beba5e.jpgJiangnan-China: luke (2025) [Chinese]Jiangnan-China: luke (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/598e8953-bc84-4cf8-a6a8-949f31f3c027/2aee0518-4470-4a7d-8260-bef451c7b6a4-master.m3u8https://video.igem.org/videos/embed/c4pYZNzWnDheof72pL5wKR404022025-10-03T11:08:54.824ZYES2025 TeamsNOhttps://video.igem.org/w/72mBZH1yXeR2GYqLMD9P3Khttps://video.igem.org/lazy-static/thumbnails/2128ab9e-5ed1-42c8-abd7-95910fec3231.jpgJiangnan-China: hechang (2025)Jiangnan-China: hechang (2025)https://static.igem.org/peertube/streaming-playlists/hls/30c7489b-d4bd-459f-b22c-61e68e1afeeb/8fc6a007-f881-4b0e-b4e6-46c3959f466c-master.m3u8https://video.igem.org/videos/embed/72mBZH1yXeR2GYqLMD9P3K116012025-10-03T11:11:40.772ZYES2025 TeamsNOhttps://video.igem.org/w/m5DFU3sxdcB1LiQCryaCnahttps://video.igem.org/lazy-static/thumbnails/59aff7eb-401a-4f11-9210-6aa75f1ff618.jpgJiangnan-China: xishou (2025) [Chinese]Jiangnan-China: xishou (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/a29cf969-5791-49b4-9641-b2180de1f1e3/d826f8ff-4d74-43a2-b9b5-dd7d9a556b17-master.m3u8https://video.igem.org/videos/embed/m5DFU3sxdcB1LiQCryaCna31032025-10-03T11:12:50.327ZYES2025 TeamsNOhttps://video.igem.org/w/sTRuEtdsugj1yxNT55NkGnhttps://video.igem.org/lazy-static/thumbnails/c9d934f7-6135-423a-8e76-9d55ec067434.jpgJiangnan-China: fucheng (2025)Jiangnan-China: fucheng (2025)https://static.igem.org/peertube/streaming-playlists/hls/d9cb0a10-42da-46d6-9b49-4fd323d24181/0c583bcc-8365-4172-a7e7-cadf76fae9cd-master.m3u8https://video.igem.org/videos/embed/sTRuEtdsugj1yxNT55NkGn50042025-10-03T11:13:51.208ZYES2025 TeamsNOhttps://video.igem.org/w/pvvsXgxvBYazPdDAMGBKtvhttps://video.igem.org/lazy-static/thumbnails/25616258-ee0e-4be8-9668-1e9bdd881c88.jpgJiangnan-China: tianyi (2025)Jiangnan-China: tianyi (2025)https://static.igem.org/peertube/streaming-playlists/hls/be60eab2-0ec8-45d3-8fe7-e6c130563d5f/e4c5600b-18b1-4b01-9263-227739eb582c-master.m3u8https://video.igem.org/videos/embed/pvvsXgxvBYazPdDAMGBKtv57022025-10-03T11:38:45.823ZYES2025 TeamsNOhttps://video.igem.org/w/iwQHT3YwnAycwLTwhprQP4https://video.igem.org/lazy-static/thumbnails/71cd0501-d11a-4664-a56b-3dd4d5544b57.jpgHainanU-China: software1 (2025)HainanU-China: software1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/8df9b244-e49b-4923-b237-1f1845570cc1/cb398d50-4e2b-4166-a8e9-0a9abc4d2020-master.m3u8https://video.igem.org/videos/embed/iwQHT3YwnAycwLTwhprQP416052025-10-03T10:26:01.290ZYES2025 TeamsNOhttps://video.igem.org/w/tnDSRx2guDHAhy9jCM2YY7https://video.igem.org/lazy-static/thumbnails/c1147df8-1180-4fa5-877f-7d62f2a29de0.jpgAustin-UTexas: Speedway Interviews (2025) [English]Our members Ahnsa Campbell and Jazmyn Koenst conducted interviews with freshmen students at the University of Texas at Austin. (Team Wiki: https://2025.igem.wiki/austin-utexas/)https://static.igem.org/peertube/streaming-playlists/hls/ddacb494-a898-4a28-94e8-3fcfb184e18e/7c5ea0e0-03c4-4734-96f8-d674f44fca1b-master.m3u8https://video.igem.org/videos/embed/tnDSRx2guDHAhy9jCM2YY784062025-10-03T11:08:46.084ZYES2025 TeamsNOhttps://video.igem.org/w/7Ayob434Z8a4gQxBrNYnA9https://video.igem.org/lazy-static/thumbnails/da867abd-7936-4d10-b4f1-e2ce1502c291.jpgHainanU-China: software2 (2025)HainanU-China: software2 (2025)https://static.igem.org/peertube/streaming-playlists/hls/356a1391-9a58-4583-a7e0-020d63088430/9cfd5edf-ab7d-4236-81da-0baf1655806f-master.m3u8https://video.igem.org/videos/embed/7Ayob434Z8a4gQxBrNYnA96072025-10-03T10:51:49.849ZYES2025 TeamsNOhttps://video.igem.org/w/fkZGMgDREF9scinVFJ6EGjhttps://video.igem.org/lazy-static/thumbnails/d4d937e1-ab24-42ff-bfd9-04a829e4658f.jpgHainanU-China: software3 (2025)HainanU-China: software3 (2025)https://static.igem.org/peertube/streaming-playlists/hls/742aa238-9c72-4420-86e3-1adc2a811e02/4ff4fa43-4747-4954-b6b7-6fb719b5143e-master.m3u8https://video.igem.org/videos/embed/fkZGMgDREF9scinVFJ6EGj50102025-10-03T11:07:09.315ZYES2025 TeamsNOhttps://video.igem.org/w/3RoF2WrV5MCwupZCxufTfXhttps://video.igem.org/lazy-static/thumbnails/59f314e6-790f-4d85-bf17-6eb81868e49b.jpgXJTLU-Software: 62 tools (2025)XJTLU-Software: 62 tools (2025)https://static.igem.org/peertube/streaming-playlists/hls/1717b1dc-e0dc-4edc-a340-27eb184cca5f/93e7c1a6-f5a2-4fca-bc1c-4aa8da8ba836-master.m3u8https://video.igem.org/videos/embed/3RoF2WrV5MCwupZCxufTfX13012025-10-03T11:12:58.628ZYES2025 TeamsNOhttps://video.igem.org/w/ihVN3hujmisNQ55WczYgZQhttps://video.igem.org/lazy-static/thumbnails/da60d435-6f40-4225-bcf3-08f67a453e40.jpgXJTLU-Software: intord (2025)XJTLU-Software: intord (2025)https://static.igem.org/peertube/streaming-playlists/hls/8c0868bd-25de-46a7-9ef3-b0f25715df66/076492c8-adf3-4815-b2b9-cbde6b8e067d-master.m3u8https://video.igem.org/videos/embed/ihVN3hujmisNQ55WczYgZQ109012025-10-03T11:31:42.041ZYES2025 TeamsNOhttps://video.igem.org/w/8Z4e7fFpisZtcFfQqeUK2ghttps://video.igem.org/lazy-static/thumbnails/3c3820d7-12ea-4771-a1d4-17fdb263a853.jpgXJTLU-Software: various languages support (2025)XJTLU-Software: various languages support (2025)https://static.igem.org/peertube/streaming-playlists/hls/40a75a85-9942-4ec3-8ab7-12c9c9e7ce45/12b8f0a3-6d8a-485f-93a3-27a3c3cbac05-master.m3u8https://video.igem.org/videos/embed/8Z4e7fFpisZtcFfQqeUK2g27012025-10-03T11:39:32.266ZYES2025 TeamsNOhttps://video.igem.org/w/pUkhRHSQNSf1dZbLZ1WZx2https://video.igem.org/lazy-static/thumbnails/900cebab-05ae-4c23-aa2f-8aeb0a6e64fb.jpgHainanU-China: TurnItAround (2025) [English]HainanU-China: TurnItAround (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c190c0e5-6bfa-4a14-9a55-9d718a07861b/62e52785-2ad0-4e53-ba07-f53661b19c4a-master.m3u8https://video.igem.org/videos/embed/pUkhRHSQNSf1dZbLZ1WZx2210022025-10-03T11:12:09.508ZYES2025 TeamsNOhttps://video.igem.org/w/2EFrwF93Mja2xihJpCKfBjhttps://video.igem.org/lazy-static/thumbnails/a3e684f4-4843-4037-b7f0-abaa456713e3.jpgXJTLU-Software: searching function (2025)XJTLU-Software: searching function (2025)https://static.igem.org/peertube/streaming-playlists/hls/0d7fb530-ee95-4b4a-876e-6e7d62bb1dd0/5378b2b6-13fd-46d9-a1db-d9a8a708cfa3-master.m3u8https://video.igem.org/videos/embed/2EFrwF93Mja2xihJpCKfBj27012025-10-03T11:40:44.688ZYES2025 TeamsNOhttps://video.igem.org/w/9vc85taaCeVCRWqRQwNUi7https://video.igem.org/lazy-static/thumbnails/589efa3c-5370-4f98-9d68-861dc4047299.jpgXJTLU-Software: scoring visualization (2025)XJTLU-Software: scoring visualization (2025)https://static.igem.org/peertube/streaming-playlists/hls/44dc8865-61fb-4538-b7c5-e72c590efe80/f0d536fb-ee33-439d-a246-16775cd3a6e1-master.m3u8https://video.igem.org/videos/embed/9vc85taaCeVCRWqRQwNUi719012025-10-03T11:42:35.031ZYES2025 TeamsNOhttps://video.igem.org/w/bNiZwqN9PtaCaNJ9Kbikhqhttps://video.igem.org/lazy-static/thumbnails/39395c40-2511-48a5-8d6f-6edb1c5e8e4b.jpgXJTLU-Software: data stock (2025)XJTLU-Software: data stock (2025)https://static.igem.org/peertube/streaming-playlists/hls/5772b017-c792-4ebd-a270-01acf932498c/e48351d2-1ef0-497c-ba85-5e4524400e01-master.m3u8https://video.igem.org/videos/embed/bNiZwqN9PtaCaNJ9Kbikhq9022025-10-03T11:44:45.290ZYES2025 TeamsNOhttps://video.igem.org/w/qLRaCydSZSiTfqQpPyWQ4nhttps://video.igem.org/lazy-static/thumbnails/0c0527bb-bedc-4105-8dd8-5d9b12704b08.jpgXJTLU-Software: concrete information (2025)XJTLU-Software: concrete information (2025)https://static.igem.org/peertube/streaming-playlists/hls/c89e5a76-5190-406d-b111-843682227613/bba13b53-524c-4da0-b6ad-9b6e96aa9511-master.m3u8https://video.igem.org/videos/embed/qLRaCydSZSiTfqQpPyWQ4n14002025-10-03T12:06:58.361ZYES2025 TeamsNOhttps://video.igem.org/w/dnXvXobDqXe9upb1CUcCUNhttps://video.igem.org/lazy-static/thumbnails/614cf86a-21c7-4234-81b6-775e45f71562.jpgXJTLU-Software: concrete information (2025)XJTLU-Software: concrete information (2025)https://static.igem.org/peertube/streaming-playlists/hls/643e7f0f-3835-4040-9488-7a184907a67e/dd522b54-bab4-4a9e-a329-997512147c45-master.m3u8https://video.igem.org/videos/embed/dnXvXobDqXe9upb1CUcCUN20012025-10-03T12:07:47.900ZYES2025 TeamsNOhttps://video.igem.org/w/tnsYJYF2kAcqvPKa4qLV2Phttps://video.igem.org/lazy-static/thumbnails/df59ec0f-3664-48e5-996c-c88ffb966033.jpgMunich: MESA Designer Usage Guide (SAbDab Search) (2025) [English]Usage guide for iGEM Munich 2025 InkSight's MESA Designer. This guide is specifically targeted for users wanting to use the SAbDab search feature. For a more customized approach, check out our custom binder MESA Design https://2025.igem.wiki/munich/https://static.igem.org/peertube/streaming-playlists/hls/dda5fd2c-0ccd-435b-bb0e-a835f029c6dd/1c2fbfd1-05d5-4688-b3b7-a7d21ffdbf58-master.m3u8https://video.igem.org/videos/embed/tnsYJYF2kAcqvPKa4qLV2P13330232025-10-03T12:02:45.547ZUsage GuideInkSightiGEM MunichiGEM Munich 2025YES2025 TeamsNOhttps://video.igem.org/w/dwX4ujNFCjHwtG9xTjobW5https://video.igem.org/lazy-static/thumbnails/fc2fee2c-77d1-4846-b114-4931dac0436b.jpgMunich: MESA Designer Usage Guide (Custom Binder) (2025) [English]Usage guide for iGEM Munich 2025 InkSight's MESA Designer. This guide is specifically targeted for users wanting to usea custom Binder. For a streamlined all-in-one approach using SAbDab, please check out that tutorial. https://2025.igem.wiki/munich/https://static.igem.org/peertube/streaming-playlists/hls/657fe8b6-caf4-41b4-8763-93b42990e4d8/696c4741-49e4-4093-bc02-37721be1695d-master.m3u8https://video.igem.org/videos/embed/dwX4ujNFCjHwtG9xTjobW5824082025-10-03T12:59:03.538ZUsage GuideInkSightiGEM Munich 2025iGEM MunichYES2025 TeamsNOhttps://video.igem.org/w/rVzQ4K9R8LngKRvH6ZwYrthttps://video.igem.org/lazy-static/thumbnails/5fd12510-0760-4cc8-b186-7d727795a000.jpgHK-HCY-PCMS: ECM Hunter - Playthrough Clip (2025) [English]This is the playthrough clip of our original game - ECM Hunter, developed with GameMaker. Part of the gaming environment is composed of template elements of GameMaker. All project-related elements are made by our team.https://static.igem.org/peertube/streaming-playlists/hls/d1efbbe6-86f7-44c0-b156-3d857b3dcec5/263741e5-830d-4d62-8595-e01e57b9e510-master.m3u8https://video.igem.org/videos/embed/rVzQ4K9R8LngKRvH6ZwYrt439072025-10-03T13:10:15.042ZEducationEngagingGameGlaucomaSynBioYES2025 TeamsNOhttps://video.igem.org/w/ttfsZzEfT7LE6bkriHn7Qshttps://video.igem.org/lazy-static/thumbnails/d2fc6299-f09e-4813-ba35-f460f0e779d6.jpgLeiden: WHAT IF... (2025)Introduction video for home pagehttps://static.igem.org/peertube/streaming-playlists/hls/de74bd7f-5b78-43c9-8619-89c41b582e0a/616f3c16-694c-45e5-8bba-37e9dd438230-master.m3u8https://video.igem.org/videos/embed/ttfsZzEfT7LE6bkriHn7Qs2102352025-10-03T13:28:29.809ZYES2025 TeamsNOhttps://video.igem.org/w/gxMT1knLYMBd9XKNhSXFPqhttps://video.igem.org/lazy-static/thumbnails/4bd7d237-8b1b-4efa-8ef8-24848d15ffc2.jpgLeiden: Gibson Assembly (2025) [English]Have you ever wondered how scientists "glue" pieces of DNA into each other? Now you know! Gibson Assembly is a very used technique among scientists and it is a must-know for your scientific career. So get ahead now and learn how it is done! Video 5/7 from our Educational Video Series.https://static.igem.org/peertube/streaming-playlists/hls/7de96934-b73f-468b-99d6-dbab01b852f2/57ac6912-b493-4050-ac3e-2819ffd09d6e-master.m3u8https://video.igem.org/videos/embed/gxMT1knLYMBd9XKNhSXFPq129052025-10-03T13:47:05.112ZYES2025 TeamsNOhttps://video.igem.org/w/qD5GdhXi3zBT9mVihrsnL7https://video.igem.org/lazy-static/thumbnails/1aaaf63f-2228-4d56-a3af-42f1c35b47f3.jpgHeidelberg: Coarse-grained MD simulation of FKBP/FRB receptor halves in membrane (2025) Here is a coarse-grained MD simulation (2µs) using the Martini3 force field of synthetic MESA receptor halves with FKBP and FRB extracellular domains. The FRB domain is linked to the CD28 and the FKBP to the mutated CD28 (M3) transmembrane domains. This simulation deems to understand the background dimerisation activity in the absence of the small molecule Rapalog ligand based on the chosen transmembrane domain pair.https://static.igem.org/peertube/streaming-playlists/hls/c788bd5b-f3ab-44c1-9eab-baf03c233552/3a24ab73-9f75-48c4-a2ab-9872692707b3-master.m3u8https://video.igem.org/videos/embed/qD5GdhXi3zBT9mVihrsnL71551152025-10-03T13:29:20.272ZCoarse-grained MDMolecular Dynamics (MD)SPARCPHOENICSiGEM HeidelbergYES2025 TeamsNOhttps://video.igem.org/w/eAZnG7r7eFuEQQrqTW8Xwthttps://video.igem.org/lazy-static/thumbnails/ed5e07f9-27f1-4d56-879a-3b13e8871280.jpgLeiden: Colony PCR (2025) [English]Have you ever wondered what is the difference between colony PCR and tradicional PCR? Have you ever kept thinking what one has that the other doesn't? Well, your questions are now answered! On this video we don't only teach you what colony PCR is, but we also teach you how to do it yourself. Video 6/7 from our Educational Videos Series.https://static.igem.org/peertube/streaming-playlists/hls/6e2972e0-8ff8-4546-ba3b-34404892757b/a42a6d08-e304-4a30-a17f-05c5ee0f164e-master.m3u8https://video.igem.org/videos/embed/eAZnG7r7eFuEQQrqTW8Xwt250032025-10-03T14:09:03.951ZYES2025 TeamsNOhttps://video.igem.org/w/uXY88UR8K1gm2s3XyhK6fihttps://video.igem.org/lazy-static/thumbnails/30b8d0f8-b2ab-448b-9f3e-8048bc4687c2.jpgCSMU-Taiwan: Predicted Structure of Anti-IL-23 scFv Prototype #1 (AlphaFold2 Model) (2025)This video visualizes the AlphaFold2-predicted 3D structure of our Anti-IL-23 scFv Prototype #1. The model displays the variable heavy (VH) and variable light (VL) domains connected by a flexible (G₄S)₃ linker, folding into a compact conformation typical of functional scFvs.https://static.igem.org/peertube/streaming-playlists/hls/ea90607b-64a9-477b-9f6c-58875a307769/2d93e333-22b2-44f0-899d-efc584f71760-master.m3u8https://video.igem.org/videos/embed/uXY88UR8K1gm2s3XyhK6fi30352025-10-03T13:51:32.154ZYES2025 TeamsNOhttps://video.igem.org/w/kyaiMHQiLXESSowtsGJNqWhttps://video.igem.org/lazy-static/thumbnails/a918a1b8-a9da-420b-9d8d-8f3eb9c57914.jpgCSMU-Taiwan: Predicted Structure of Anti-IL-23 scFv Prototype #2 (AlphaFold2 Model) (2025)This video visualizes the AlphaFold2-predicted 3D structure of our Anti-IL-23 scFv Prototype #2. The model displays the variable heavy (VH) and variable light (VL) domains connected by a flexible (G₄S)₃ linker, folding into a compact conformation typical of functional scFvs.https://static.igem.org/peertube/streaming-playlists/hls/9e5b2bae-af6a-42d1-9bc4-6ad1be50bf2e/682af756-c027-41ab-ba7d-87631d0738b3-master.m3u8https://video.igem.org/videos/embed/kyaiMHQiLXESSowtsGJNqW30252025-10-03T13:56:23.256ZYES2025 TeamsNOhttps://video.igem.org/w/auuam5Rp34TSqm1SA6mxxWhttps://video.igem.org/lazy-static/thumbnails/78e5a315-01cd-4ba3-a8e3-0335611bd5c1.jpgCSMU-Taiwan: Predicted Structure of Anti-IL-23 scFv Prototype #3 (AlphaFold2 Model) (2025)This video visualizes the AlphaFold2-predicted 3D structure of our Anti-IL-23 scFv Prototype #3. The model displays the variable heavy (VH) and variable light (VL) domains connected by a flexible (G₄S)₃ linker, folding into a compact conformation typical of functional scFvs.https://static.igem.org/peertube/streaming-playlists/hls/4cdc6dac-f9b9-418b-bb91-469bb226d6c8/ab756282-afcc-4cfd-a2c9-68a2b008ed93-master.m3u8https://video.igem.org/videos/embed/auuam5Rp34TSqm1SA6mxxW30242025-10-03T14:01:31.734ZYES2025 TeamsNOhttps://video.igem.org/w/eA8FFymUp281DJpxNhwFXHhttps://video.igem.org/lazy-static/thumbnails/bae2d006-ee6e-47c4-9649-daa221912e9b.jpgShanghaitech-China: Rainbow Bridge (2025) [English]Shanghaitech-China: Rainbow Bridge (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/6e0ad388-60ce-4120-bdfd-3541744b58cb/69f129c1-24e6-483a-9235-520a9440b770-master.m3u8https://video.igem.org/videos/embed/eA8FFymUp281DJpxNhwFXH14670162025-10-03T14:44:53.709ZeducationYES2025 TeamsNOhttps://video.igem.org/w/wnoNsFXAhtZMt4rz73bpxEhttps://video.igem.org/lazy-static/thumbnails/a07f3a27-d444-4a24-a2a7-5a1a17b19c8a.jpgMunich: SPELL Usage Guide (2025) [English]iGEM Munich 2025 InkSight's Guide to using SPELL. Please check out our wiki at: https://2025.igem.wiki/munich/ SPELL: https://dokhlab.med.psu.edu/spell/login.phphttps://static.igem.org/peertube/streaming-playlists/hls/f5eed4a2-bb12-4e73-9834-166fc2815898/2bc27bd0-2c4c-41f9-8e8d-ecbdbb73364f-master.m3u8https://video.igem.org/videos/embed/wnoNsFXAhtZMt4rz73bpxE1086032025-10-03T14:46:20.886ZYES2025 TeamsNOhttps://video.igem.org/w/4fn358tiUgPLNzKES39Rnhhttps://video.igem.org/lazy-static/thumbnails/fa747185-3205-4db5-b1e2-d11518902943.jpgZZU-China: Science Outreach for Primary to High Schools (2025)ZZU-China: Science Outreach for Primary to High Schools (2025)https://static.igem.org/peertube/streaming-playlists/hls/1a4ccadf-c49e-4c09-acf8-15344af6e356/a9204892-3da6-499f-8766-ed19ba03590f-master.m3u8https://video.igem.org/videos/embed/4fn358tiUgPLNzKES39Rnh14042025-10-03T14:58:52.960ZYES2025 TeamsNOhttps://video.igem.org/w/fW9ancrk1Dtz68gibLLrnmhttps://video.igem.org/lazy-static/thumbnails/5921c2f1-e226-4faf-8641-e14a9cdb6130.jpgHK-Joint-School: Soil Sample preparation (2025) [English]HK-Joint-School: Soil Sample preparation (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/78ef226f-0727-4a85-8bee-20fddc665ffa/5896598a-66fe-4c3a-8468-726adb0ec146-master.m3u8https://video.igem.org/videos/embed/fW9ancrk1Dtz68gibLLrnm460122025-10-03T15:22:05.813Z Pesticides iGEM2025HK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/2CQZ6qh6GSXBexWF8XtCjGhttps://video.igem.org/lazy-static/thumbnails/0b3af27c-48a4-4408-9663-11f63db4aa8b.jpgSCUT-CHINA-L: Software AI Agent Q&A Demonstration Q1 (2025) [English]SCUT-CHINA-L: Software AI Agent Q&A Demonstration Q1 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/0d3e1a21-45c5-414d-aa47-cfa8efc5c514/85eb25dc-52c3-4cd5-b6f8-bea7720077af-master.m3u8https://video.igem.org/videos/embed/2CQZ6qh6GSXBexWF8XtCjG380152025-10-03T15:50:51.845ZYES2025 TeamsNOhttps://video.igem.org/w/vWQS1UG4C49YMT1CKjgVQnhttps://video.igem.org/lazy-static/thumbnails/cae272a1-d477-4dd7-a785-c5b33e7d3017.jpgSCUT-CHINA-L: Software AI Agent Q&A Demonstration Q2 (2025) [English]SCUT-CHINA-L: Software AI Agent Q&A Demonstration Q2 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/f2814c15-b180-43d0-a67b-8c657dce0ec1/ed13ceb1-7741-460d-90b8-cfe964929d6e-master.m3u8https://video.igem.org/videos/embed/vWQS1UG4C49YMT1CKjgVQn78062025-10-03T15:52:41.212ZYES2025 TeamsNOhttps://video.igem.org/w/i2bjczz8zE4fhHqoTW3ZD1https://video.igem.org/lazy-static/thumbnails/86cbf534-9b37-4d55-8fa8-9706ca831c59.jpgIISER Berhampur: Compilation of different polluted regions around the world (2025)This video is a representation of different polluted regions around the world. -- Wiki link: https://2025.igem.wiki/iiser-berhampur/ -- Credit, Copyright & Creation Information : Video footages - Pixabay free to use videos. https://static.igem.org/peertube/streaming-playlists/hls/89d57503-a380-4b67-817f-6d2abe777876/94f4c1ec-79ab-48e0-8309-db5cada46750-master.m3u8https://video.igem.org/videos/embed/i2bjczz8zE4fhHqoTW3ZD12104902025-10-03T15:54:33.727ZYES2025 TeamsNOhttps://video.igem.org/w/q5wLfcWCvzYQcATkPXxb1rhttps://video.igem.org/lazy-static/thumbnails/9924e79d-4496-4825-9b07-9d3cd82ba7da.jpgSCUT-CHINA-L: Software AI Agent Q&A Demonstration Q3 (2025) [English]SCUT-CHINA-L: Software AI Agent Q&A Demonstration Q3 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c2fd42dd-b8e7-49a6-8722-cee2f354f369/b035f179-93ab-4fa2-9b16-4e86a88770fa-master.m3u8https://video.igem.org/videos/embed/q5wLfcWCvzYQcATkPXxb1r81072025-10-03T15:53:41.966ZYES2025 TeamsNOhttps://video.igem.org/w/eQn4oGW16LphDWKkZCP9srhttps://video.igem.org/lazy-static/thumbnails/f84442a8-f9b5-4ee4-b84d-85fd3ef00d9f.jpgSCUT-CHINA-L: Software AI Agent Q&A Demonstration Q4 (2025) [English]SCUT-CHINA-L: Software AI Agent Q&A Demonstration Q4 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/70077b35-8546-496c-a35b-f47c66516d95/b9cc5406-b7b3-44cb-acaa-2e76b34f0933-master.m3u8https://video.igem.org/videos/embed/eQn4oGW16LphDWKkZCP9sr81052025-10-03T15:54:22.107ZYES2025 TeamsNOhttps://video.igem.org/w/a5NLz8ctnK7WJeJsqFk8gyhttps://video.igem.org/lazy-static/thumbnails/c8230452-f4c6-4954-b03f-0e6c97b4b264.jpgSYPHU-CHINA: model-1 (2025)SYPHU-CHINA: model-1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/498e0b8c-7524-41b5-9f5c-f3f1ffc8f96a/f6be1c71-aefb-4e9d-ba12-3bbbcfc2ea51-master.m3u8https://video.igem.org/videos/embed/a5NLz8ctnK7WJeJsqFk8gy630302025-10-03T16:14:27.314ZYES2025 TeamsNOhttps://video.igem.org/w/88m6koVXrKnBtPkhJgW9rYhttps://video.igem.org/lazy-static/thumbnails/b30083f8-bc88-4e21-ad8c-9e4a2a887abd.jpgSYPHU-CHINA: model-2 (2025)SYPHU-CHINA: model-2 (2025)https://static.igem.org/peertube/streaming-playlists/hls/39b68f23-0179-4b69-91f1-5a0aecfbe022/abf11243-43f1-4372-b6dd-ff00f146f33b-master.m3u8https://video.igem.org/videos/embed/88m6koVXrKnBtPkhJgW9rY630292025-10-03T16:16:00.921ZYES2025 TeamsNOhttps://video.igem.org/w/pHCTih4JaZFdksbHr1LHLghttps://video.igem.org/lazy-static/thumbnails/cae2a603-c289-459b-a124-02ece2a5beca.jpgSYPHU-CHINA: model-5 (2025)SYPHU-CHINA: model-5 (2025)https://static.igem.org/peertube/streaming-playlists/hls/c0126a23-0d45-41ff-bba7-dfa1a709898b/b2768581-7162-465d-8394-e212ea7c186b-master.m3u8https://video.igem.org/videos/embed/pHCTih4JaZFdksbHr1LHLg30232025-10-03T16:18:13.625ZYES2025 TeamsNOhttps://video.igem.org/w/roMRTjXPvZ3c9vf2rDPJBThttps://video.igem.org/lazy-static/thumbnails/8e2f54ec-99b4-41a5-9e7a-4d78189f0fd4.jpgSYPHU-CHINA: model-6 (2025)SYPHU-CHINA: model-6 (2025)https://static.igem.org/peertube/streaming-playlists/hls/cda3177b-0ee1-4734-b35f-04eaeaaa2f91/17017f8a-97ec-4cf6-bf2c-1cb80e6ceb3f-master.m3u8https://video.igem.org/videos/embed/roMRTjXPvZ3c9vf2rDPJBT30162025-10-03T16:19:22.518ZYES2025 TeamsNOhttps://video.igem.org/w/qprXJGzZN6z4a8BHh8UBB7https://video.igem.org/lazy-static/thumbnails/4f6ee01b-1cac-4bce-8a01-8656f47d3fc0.jpgBUCT-China: SDG 11 (2025) [English]In this video, we mainly introduced some parts of SDG11 and shared our team's BrightWaste project, which presents an innovative solution for plastic waste treatment through synthetic biology. Additionally, we jointly combined industrial cases such as Eastman and Carbios, as well as scenarios like rural school science camps, to comprehensively present the integration path of technology implementation and SDG11, and put forward action suggestions for multi-stakeholder collaboration. wiki: https://2025.igem.wiki/BUCT-China/https://static.igem.org/peertube/streaming-playlists/hls/c5a16efe-237a-4b5c-b793-87260d86be30/2373a236-a2b5-453f-a72d-fda87996ada3-master.m3u8https://video.igem.org/videos/embed/qprXJGzZN6z4a8BHh8UBB7758042025-10-03T17:38:49.892ZYES2025 TeamsNOhttps://video.igem.org/w/waEAW3D4Rdo59nMWouKTxYhttps://video.igem.org/lazy-static/thumbnails/9b0f1314-4cc7-4dbf-9d1a-938837032e3b.jpgSYPHU-CHINA: model-7 (2025)SYPHU-CHINA: model-7 (2025)https://static.igem.org/peertube/streaming-playlists/hls/f44ba4aa-6d49-476b-8915-1fba93cee2a2/235cbdb8-67ee-43ed-86b5-d58330927d42-master.m3u8https://video.igem.org/videos/embed/waEAW3D4Rdo59nMWouKTxY30112025-10-03T16:20:40.450ZYES2025 TeamsNOhttps://video.igem.org/w/9n2CVGDEvpH24HYTDRtDcmhttps://video.igem.org/lazy-static/thumbnails/a240eb7a-7eb2-4e1d-a84a-32202560ca90.jpgSYPHU-CHINA: model-8 (2025)SYPHU-CHINA: model-8 (2025)https://static.igem.org/peertube/streaming-playlists/hls/43b8bcb0-d412-4d88-8d09-46c1cd98e8ee/6b70a81a-be4b-410c-92bb-1270a44917cc-master.m3u8https://video.igem.org/videos/embed/9n2CVGDEvpH24HYTDRtDcm30162025-10-03T16:21:33.932ZYES2025 TeamsNOhttps://video.igem.org/w/kwVDjkBNVwvnnbSLTrDhjChttps://video.igem.org/lazy-static/thumbnails/e6e1d42f-f171-4ab5-8f38-4477e9527d89.jpgOUC-Haide: Roarm improvement (2025)OUC-Haide: Roarm improvement (2025)https://static.igem.org/peertube/streaming-playlists/hls/9e2f01ad-2e1b-4640-8170-7d49ebfbbbb0/807ddc54-d04c-44d4-9906-9c9fdb9af1c7-master.m3u8https://video.igem.org/videos/embed/kwVDjkBNVwvnnbSLTrDhjC54062025-10-03T16:32:10.413ZYES2025 TeamsNOhttps://video.igem.org/w/gfAUSqNV9fYxS4uFzAmoUGhttps://video.igem.org/lazy-static/thumbnails/9922291a-d41d-44fb-9e50-1fac5e11296b.jpgTAU-Israel: Oncoligo Pitch (2025) [English]This video pitch presents Oncoligo, the iGEM TAU 2025 project, a modular therapeutic platform for cancer treatment. Credits: Presented by: Michael Kovaliov & Ariela Nouman Created by: iGEM TAU 2025 (Team Oncoligo) Learn more on our Wiki: https://2025.igem.wiki/tau-israel/https://static.igem.org/peertube/streaming-playlists/hls/7b8301f7-748e-46bd-9fb5-c4a2be478aa8/b4bd1ca0-ef8a-4bb7-9b0c-e2afb9cd2831-master.m3u8https://video.igem.org/videos/embed/gfAUSqNV9fYxS4uFzAmoUG3865262025-10-03T17:40:47.717ZCancerPitchiGEM2025enterprenurship‬‏ YES2025 TeamsNOhttps://video.igem.org/w/en3rGGC1LyvcfwruWrYbi3https://video.igem.org/lazy-static/thumbnails/a54da8a5-c3e7-4605-8b97-353e3918000a.jpgSMU-Union-China: Segment measurement of a growth curve (2025) [English]SMU-Union-China: Segment measurement of a growth curve (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/6c36ed69-0da9-4eae-b105-7f51cd0ae9d4/b5beaffd-6252-41ee-b6e9-47bcd0c0b05c-master.m3u8https://video.igem.org/videos/embed/en3rGGC1LyvcfwruWrYbi32420122025-10-03T17:38:48.370ZYES2025 TeamsNOhttps://video.igem.org/w/7ufk1vKRs7U4NZQtx2sQGshttps://video.igem.org/lazy-static/thumbnails/676c2f2d-84eb-4567-bd23-a4a520ea6c07.jpgULaval: Antibiotic resistance 101 (2025) [French]**Antibiotic resistance 101** Facts about the antiobiotic resistance from United Nations, how the resistance mechanisms works (generally), which people does it impact Made with cartoon picture No voice, only text in french The text can be translated and provided under the video, when inserted in the wiki https://2025.igem.wiki/ulaval/educationhttps://static.igem.org/peertube/streaming-playlists/hls/34887cbf-ddaa-433f-8d25-6662a3f8452a/22851ea0-af91-474c-8d13-df489c65010a-master.m3u8https://video.igem.org/videos/embed/7ufk1vKRs7U4NZQtx2sQGs81022025-10-04T11:20:52.701ZYES2025 TeamsNOhttps://video.igem.org/w/quzycNa2UHSE1AJqxPvSBQhttps://video.igem.org/lazy-static/thumbnails/3614a1e7-14e5-4fdd-ade6-3cdaf8444348.jpgOUC-Haide: Roarm performance after applying new control algrithm (2025)OUC-Haide: Roarm performance after applying new control algrithm (2025)https://static.igem.org/peertube/streaming-playlists/hls/c658d521-b11a-44ec-a1db-af1c2fbc1cfe/60493e16-1602-4191-b549-967db3a5ec39-master.m3u8https://video.igem.org/videos/embed/quzycNa2UHSE1AJqxPvSBQ54002025-10-05T10:24:26.453ZYES2025 TeamsNOhttps://video.igem.org/w/a7JK1guD2nqjpb1itQGutShttps://video.igem.org/lazy-static/thumbnails/e709b9af-4e61-4b4a-99f1-b4924436c212.jpgHamburg: Figure 2. NBs superimposed (2025)Hamburg: Figure 2. NBs superimposed (2025)https://static.igem.org/peertube/streaming-playlists/hls/49d30d09-1348-4900-96a1-38ff3d00e9a0/5169ed63-3b76-4e33-a957-5e81659b027c-master.m3u8https://video.igem.org/videos/embed/a7JK1guD2nqjpb1itQGutS29092025-10-04T12:11:07.690ZYES2025 TeamsNOhttps://video.igem.org/w/mcgB3cCz7XcgXEBFE3fFYghttps://video.igem.org/lazy-static/thumbnails/7f4c372a-7819-498b-80e4-1f1bfdccdaca.jpgHamburg: Figure 4. NB close up (2025)Hamburg: Figure 4. NB close up (2025)https://static.igem.org/peertube/streaming-playlists/hls/a389922f-a63e-470b-a645-4df2abdf0e8b/b658b4bd-24de-4950-80f9-898ad5fd6174-master.m3u8https://video.igem.org/videos/embed/mcgB3cCz7XcgXEBFE3fFYg10002025-10-04T12:11:14.396ZYES2025 TeamsNOhttps://video.igem.org/w/nAponfpwnh8ZNzy62Zmxhohttps://video.igem.org/lazy-static/thumbnails/55e31895-c161-4a1b-b248-37bf797a7cca.jpgHamburg: Figure 11. Design#40 binding (2025)Hamburg: Figure 11. Design#40 binding (2025)https://static.igem.org/peertube/streaming-playlists/hls/aedd9ca8-61ee-4183-9f1e-43deaefd5ca2/e47b17a3-978c-4769-9c69-ed460c1b4aee-master.m3u8https://video.igem.org/videos/embed/nAponfpwnh8ZNzy62Zmxho29022025-10-04T12:48:03.425ZYES2025 TeamsNOhttps://video.igem.org/w/1pmb73JouFDRjjWJLZVuP5https://video.igem.org/lazy-static/thumbnails/e7a5b03a-876b-437e-9ed6-993444316ec0.jpgHamburg: Figure 12. Design#15 binding (2025)Hamburg: Figure 12. Design#15 binding (2025)https://static.igem.org/peertube/streaming-playlists/hls/03428a1d-4b7d-4dc7-a984-d30eea3dc472/e2f1dbcf-07e4-4a06-906a-a7c597415b25-master.m3u8https://video.igem.org/videos/embed/1pmb73JouFDRjjWJLZVuP529052025-10-05T09:54:38.034ZYES2025 TeamsNOhttps://video.igem.org/w/vvoevdFrZxCrhnc16VRTUthttps://video.igem.org/lazy-static/thumbnails/1f7f5a7e-ace7-46b5-abc6-332820489054.jpgHamburg: Figure 15 design#15 boltz2 20models (2025)Hamburg: Figure 15 design#15 boltz2 20models (2025)https://static.igem.org/peertube/streaming-playlists/hls/eef34abc-30ac-4c06-a2aa-17eeb5fa88a7/05dbf2cd-fa8b-4ff3-80db-11322d82c701-master.m3u8https://video.igem.org/videos/embed/vvoevdFrZxCrhnc16VRTUt14092025-10-05T10:02:37.365ZYES2025 TeamsNOhttps://video.igem.org/w/pe6kVpPTQn7sqz8txfpyiQhttps://video.igem.org/lazy-static/thumbnails/36ca977e-41e7-4583-8b57-cd604f9e1e80.jpgHamburg: Figure 1. Alpha-Amanitin (2025)Hamburg: Figure 1. Alpha-Amanitin (2025)https://static.igem.org/peertube/streaming-playlists/hls/bc1626b6-1873-47b8-b933-23d27e9522a2/5ddfee11-4e03-44d6-aa79-b3e5bab1b4f2-master.m3u8https://video.igem.org/videos/embed/pe6kVpPTQn7sqz8txfpyiQ70172025-10-05T10:03:53.609ZYES2025 TeamsNOhttps://video.igem.org/w/x1YtLmpXYhdpJJUE1ekp2Chttps://video.igem.org/lazy-static/thumbnails/658a39b0-5e29-4fff-9aaa-49f9991413b6.jpgIOANNINA: Der Wald Der Traume - Audiobook (2025) [German]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/fb2e1acd-5e4f-47b0-8e00-982fddd422e2/8ded1081-58f5-40b4-a1da-356fa0bd5579-master.m3u8https://video.igem.org/videos/embed/x1YtLmpXYhdpJJUE1ekp2C541022025-10-04T11:50:37.387ZYES2025 TeamsNOhttps://video.igem.org/w/bYJxKUE9bX7gPRuHqDs2Dkhttps://video.igem.org/lazy-static/thumbnails/b7a5fa5e-b13b-4c85-ab0a-f55ce70e83cf.jpgBarcelona-UB: WIKI Parts intro (2025)Video for wiki parts page https://2025.igem.wiki/barcelona-ub https://static.igem.org/peertube/streaming-playlists/hls/58e74231-a4b1-4c4d-874f-0f5cc202c139/c310ff03-2194-4199-b31b-7b88b3e94dc7-master.m3u8https://video.igem.org/videos/embed/bYJxKUE9bX7gPRuHqDs2Dk220412025-10-04T11:50:19.421ZYES2025 TeamsNOhttps://video.igem.org/w/gC3DvSkLYgs54koE1uvTX7https://video.igem.org/lazy-static/thumbnails/48fa6a5d-6188-4daf-86bd-717ee3bb0b73.jpgIOANNINA: Dromnarnas Skog - Audiobook (2025) [Swedish]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/7e817c9d-3d59-4917-883d-67915623b470/054660c6-f5a8-40cf-8fd0-c8859067199e-master.m3u8https://video.igem.org/videos/embed/gC3DvSkLYgs54koE1uvTX7522012025-10-04T12:26:59.986Zfairytaleaudiobookigemioannina2025igemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/eGFrSDFjEtwqRZi9kxMp53https://video.igem.org/lazy-static/thumbnails/e0755a81-e652-47b0-9301-2afa56ee92b8.jpgIOANNINA: El Bosque De Los Sueños - Audiobook (2025) [Spanish]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/6ef4dce6-d290-43e6-b891-fc99b5644f7e/1824dcc5-3956-4000-9045-063b1b513982-master.m3u8https://video.igem.org/videos/embed/eGFrSDFjEtwqRZi9kxMp53404012025-10-04T13:01:56.063Zaudiobookfairytaleigemioannina2025igemYES2025 TeamsNOhttps://video.igem.org/w/nwDxchp6wJfKQdFwQgmhZWhttps://video.igem.org/lazy-static/thumbnails/29f2c0cd-a5a3-4acc-a37a-b1ca2b8a52ba.jpgIOANNINA: La Forêt Des Reves - Audiobook (2025) [French]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/ae575bc4-ecf3-482d-9deb-a7a912ae5970/7a17bcbb-3dca-407d-9718-bb073ee93384-master.m3u8https://video.igem.org/videos/embed/nwDxchp6wJfKQdFwQgmhZW396042025-10-05T10:02:56.009Zigemfairytaleaudiobookigemioannina2025igemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/gugKv4EvjJQkjyE7arpzcuhttps://video.igem.org/lazy-static/thumbnails/152edbdd-9055-41e9-9937-afab4d1bfa78.jpgMcGill: home_flexibility_animation (2025)Simple flexibility animation for our tool on the McGill Wiki: https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/7d6b9c9b-e53e-4f88-8f4e-0250ac26ab86/3235e27b-c51f-46d3-aca2-b1095bf448b5-master.m3u8https://video.igem.org/videos/embed/gugKv4EvjJQkjyE7arpzcu501532025-10-04T11:50:37.815ZYES2025 TeamsNOhttps://video.igem.org/w/gAgwYNXsaGNjFbN4PYRKcWhttps://video.igem.org/lazy-static/thumbnails/d94d0a19-a332-4899-a80e-d7ad75bd63e1.jpgIOANNINA: The Forest of Dreams - Audiobook (2025) [English]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/7e41f0fa-cccd-4e23-bcc2-947d9ddc9b08/7af80c59-4dd3-42a9-97e5-447b973d1af8-master.m3u8https://video.igem.org/videos/embed/gAgwYNXsaGNjFbN4PYRKcW391012025-10-05T10:14:31.369Zaudiobookfairytailsigemioannina2025igemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/tH53iuoZHuuF8Ne819H434https://video.igem.org/lazy-static/thumbnails/49003e6c-ea1a-4c71-b3d7-236d63637bf9.jpgIOANNINA: Το Δάσος Των Ονείρων - Audiobook (2025) [Greek]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/e062ba59-c18e-4dfb-b3f4-ec8b9e17950b/74563c7d-3110-47bb-adb8-8c0efab7ba22-master.m3u8https://video.igem.org/videos/embed/tH53iuoZHuuF8Ne819H434430022025-10-05T10:18:38.571Zigemioannina2025audiobookfairytailsigemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/bq6aCLL5VSY5EZLfTyeJMahttps://video.igem.org/lazy-static/thumbnails/f558f19f-30d9-4043-9fa9-031e9d65cb90.jpgIOANNINA: лес мечты - Audiobook (2025) [Russian]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/54586bb9-d314-41e7-a1c8-6ca6db3b218b/a1422340-15d3-4f0d-a7c0-7bde55bff56c-master.m3u8https://video.igem.org/videos/embed/bq6aCLL5VSY5EZLfTyeJMa527062025-10-05T10:32:42.401Zigemioannina2025audiobookfairytaleigemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/bdm4Ph4y1pHXk3JeFFWmmFhttps://video.igem.org/lazy-static/thumbnails/44d73328-4d0b-4539-9d25-c0d4b720fb91.jpgIOANNINA: The Girld and the Plane Tree - Audiobook (2025) [English]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/52b4ad85-470b-4a9d-b3bf-ab0913a526ff/3c45e45b-de31-48ba-a08b-a858c6cd1e7a-master.m3u8https://video.igem.org/videos/embed/bdm4Ph4y1pHXk3JeFFWmmF213012025-10-05T10:28:40.237Zigemfairytaleaudiobookigemioannina2025igemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/qhMAj7FmuwyNExY2gLCVf8https://video.igem.org/lazy-static/thumbnails/cb7f53c8-7425-405c-8f2a-52f2cbf142ad.jpgIOANNINA: Το Κορίτσι Και Ο Πλάτανος - Audiobook (2025) [Greek] A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/c4b35331-a9ad-4894-a909-868c449d31a7/14d79558-ccaf-462d-a88f-089562e65096-master.m3u8https://video.igem.org/videos/embed/qhMAj7FmuwyNExY2gLCVf8493062025-10-05T10:41:12.331Zaudiobookigemioannina2025fairytalesigemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/452c7tA2KB9NameFq1SU53https://video.igem.org/lazy-static/thumbnails/ccd98f67-3ce4-4c5c-9919-cd8c7b09700e.jpgMcGill: home_diversity (2025)An animation showing diversity of adhesion for the Cohera project. (McGill iGEM 2025 Wiki: https://2025.igem.wiki/mcgill/description)https://static.igem.org/peertube/streaming-playlists/hls/18db201a-0a0c-444f-9c7e-225166f9f14a/fac54bb7-d9e4-4055-ba2e-11bb1091fcd5-master.m3u8https://video.igem.org/videos/embed/452c7tA2KB9NameFq1SU5350512025-10-04T12:24:36.767ZMCGillcoheraYES2025 TeamsNOhttps://video.igem.org/w/qprBGZQbutZNTk6L7nhLsWhttps://video.igem.org/lazy-static/thumbnails/53aa8ff8-9c58-4713-a761-4124cc4e2b71.jpgMcMaster-Canada: Prototype Animation (2025) [English]An animation detailing how the REACT project for McMaster-Canada works via a prototype https://2025.igem.wiki/mcmaster-canada/ https://static.igem.org/peertube/streaming-playlists/hls/c5a13882-cd2d-4b38-8df6-9ac0182e975a/323df155-6f38-4a67-82a0-2ef28eb2cd59-master.m3u8https://video.igem.org/videos/embed/qprBGZQbutZNTk6L7nhLsW1340562025-10-04T12:30:03.063ZYES2025 TeamsNOhttps://video.igem.org/w/rit4ZMhTGFsXpgyKFXYBBnhttps://video.igem.org/lazy-static/thumbnails/1d8beeaf-a59d-4306-b168-94c7d364a486.jpgBASIS-China: Hardware (2025)Video for BASIS-China iGEM team hardware. This video will be used on https://2025.igem.wiki/basis-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/cce4cada-38d2-432e-997d-db4bc2db843f/0c33980d-3192-460f-b621-0c7164223975-master.m3u8https://video.igem.org/videos/embed/rit4ZMhTGFsXpgyKFXYBBn405312025-10-05T10:00:59.985ZbioremediationhardwareYES2025 TeamsNOhttps://video.igem.org/w/oHJQ869ZKwb6ZidxVzsJUhhttps://video.igem.org/lazy-static/thumbnails/b230498f-ead2-4629-ad7d-f77199c92c63.jpgRochester: Clinostat 1 (2025)clinostat datahttps://static.igem.org/peertube/streaming-playlists/hls/b7fcf098-72f2-404f-b84e-fcaf19ad43c0/b1fa9f9a-998c-4f8c-b866-1767410c0f60-master.m3u8https://video.igem.org/videos/embed/oHJQ869ZKwb6ZidxVzsJUh61052025-10-04T11:56:18.936ZYES2025 TeamsNOhttps://video.igem.org/w/oXakjJ2NxuAhNzeyZDna22https://video.igem.org/lazy-static/thumbnails/825077f1-0959-41a7-893c-fa75df3c816e.jpgRochester: clinostat 2 (2025)clinostat datahttps://static.igem.org/peertube/streaming-playlists/hls/b9dcb5aa-43c2-4bb8-b7d9-de523e9abd37/e702104b-74ef-4c43-96da-b2a23e83012b-master.m3u8https://video.igem.org/videos/embed/oXakjJ2NxuAhNzeyZDna2215201602025-10-04T12:32:41.511ZYES2025 TeamsNOhttps://video.igem.org/w/jEvArkYWLWMxvbdAsUe6aXhttps://video.igem.org/lazy-static/thumbnails/3f57bc0d-5c0f-431f-8c1f-a19128419150.jpgBologna: hero (2025) [English]HERO, our mascot, flies over some buildings in a polluted neighborhood and he lands on the last one. Building windows light up to spell out the word HERO and a signal in the sky shows the meaning of the acronym.https://static.igem.org/peertube/streaming-playlists/hls/9724ff36-d8e4-444a-b4ed-31c5775d03fd/7f71b1af-3a33-4d2e-a30f-fe1c264f5044-master.m3u8https://video.igem.org/videos/embed/jEvArkYWLWMxvbdAsUe6aX90122025-10-04T11:54:00.097ZYES2025 TeamsNOhttps://video.igem.org/w/1dMKEifXBqLdgJJJWuTWrRhttps://video.igem.org/lazy-static/thumbnails/92762681-d936-49bd-98d9-4706407cfe1f.jpgHUST-China: LOGO of Wiki (2025)HUST-China 2025:LOGO of Wiki https://2025.igem.wiki/hust-china/https://static.igem.org/peertube/streaming-playlists/hls/01c91f12-ed19-4bda-b9c8-86e7bf835e6b/fef5cdc1-dde5-4bcb-8641-3ae68401bd68-master.m3u8https://video.igem.org/videos/embed/1dMKEifXBqLdgJJJWuTWrR4072025-10-04T12:30:16.822ZYES2025 TeamsNOhttps://video.igem.org/w/j79qimuWPfpiRKoMWQNk6Whttps://video.igem.org/lazy-static/thumbnails/1c86df76-4d24-40bc-9c8c-f9b15dc8e6fc.jpgESSENTIAL KOREA: Home (2025)Schematic overview of the project Lacto-Bexo that hisF from Lactobacillus rhamnosus inhibiting lipid accumulation.https://static.igem.org/peertube/streaming-playlists/hls/92a02598-d249-4fca-a077-cc8fd99eb234/3e28c885-662c-40ee-b9a1-f110e8e17e23-master.m3u8https://video.igem.org/videos/embed/j79qimuWPfpiRKoMWQNk6W8012025-10-04T13:02:00.873ZYES2025 TeamsNOhttps://video.igem.org/w/pwQhuPTiU2zubxJoBVXBxQhttps://video.igem.org/lazy-static/thumbnails/a9fc7723-f625-4cd3-9a00-f53b1c0d80ec.jpgDUT-China: Web-based User Guide for the HHP Model (2025) [English]DUT-China: Web-based User Guide for the HHP Model (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/be904234-c2aa-460d-8f5c-ec01dee1a86a/23b5f6d8-8e46-4155-96d3-016e7b07d6d7-master.m3u8https://video.igem.org/videos/embed/pwQhuPTiU2zubxJoBVXBxQ1260112025-10-04T11:56:00.678ZYES2025 TeamsNOhttps://video.igem.org/w/ehk18EfFN87vJgzGrQfuWLhttps://video.igem.org/lazy-static/thumbnails/2d7e57b6-2e24-40df-ba80-66c97fe953fa.jpgDUT-China: The 5′UTR Sequence Optimization Platform (2025) [English]DUT-China: The 5′UTR Sequence Optimization Platform (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/6b8e69d9-1c38-47cd-a72f-67ba4ba2b5a8/3a194316-fdeb-4beb-a3ac-86fa97ce3ed6-master.m3u8https://video.igem.org/videos/embed/ehk18EfFN87vJgzGrQfuWL700112025-10-04T12:35:06.296ZYES2025 TeamsNOhttps://video.igem.org/w/cSXnorwftH9jFGteBgZKivhttps://video.igem.org/lazy-static/thumbnails/327fc92f-e560-4eef-962d-9b36b69f3593.jpgAFMU-China: description (2025) [Chinese]This video introduces the background, research content and significance of the project.https://2025.igem.wiki/afmu-china/homehttps://static.igem.org/peertube/streaming-playlists/hls/6031d601-588e-4462-98bd-edbc0d1fc77b/9675e8e6-5a9e-4204-b511-6d2620a10310-master.m3u8https://video.igem.org/videos/embed/cSXnorwftH9jFGteBgZKiv538032025-10-04T13:05:31.230ZYES2025 TeamsNOhttps://video.igem.org/w/eKukyFfEpDDfLUpJ4UKZZ7https://video.igem.org/lazy-static/thumbnails/3a6391be-dba2-4e81-8e79-ed082326bb92.jpgAFMU-China: Neurons and microglia (2025)Neurons and microgliahttps://static.igem.org/peertube/streaming-playlists/hls/6f593f88-28f9-4c78-a9f3-46abaa7cfacc/debbf0f0-d873-45dd-9074-c749b947444b-master.m3u8https://video.igem.org/videos/embed/eKukyFfEpDDfLUpJ4UKZZ733012025-10-05T09:55:37.735ZYES2025 TeamsNOhttps://video.igem.org/w/h71orwLs8H84M578g3WUBChttps://video.igem.org/lazy-static/thumbnails/97b42206-26a9-4467-b384-751160505426.jpgMcGill: neurons (2025)Drawn animation of neurons connecting for homepagehttps://static.igem.org/peertube/streaming-playlists/hls/8268eb6b-e712-4b86-87dc-3a66326a6b12/c45463f9-ab87-4821-83ae-8e5a6024f496-master.m3u8https://video.igem.org/videos/embed/h71orwLs8H84M578g3WUBC90662025-10-04T11:56:33.387ZYES2025 TeamsNOhttps://video.igem.org/w/aBt84zdZdZA71MEarppLXPhttps://video.igem.org/lazy-static/thumbnails/b923e4fd-fe95-4324-aad5-c34b6193bc35.jpgAFMU-China: liver Sign language (2025) [Chinese]Sign language video liver https://static.igem.org/peertube/streaming-playlists/hls/4dd5fe88-09b5-40b3-8143-29d130c1fdbd/c53a8cf2-1cc0-4323-8df8-d9769b847b40-master.m3u8https://video.igem.org/videos/embed/aBt84zdZdZA71MEarppLXP5012025-10-05T10:02:44.058ZYES2025 TeamsNOhttps://video.igem.org/w/bjN92hWfcwFkjpW8tTtJurhttps://video.igem.org/lazy-static/thumbnails/c3ab4565-f9cc-41f0-ba90-b2158c31352b.jpgAFMU-China: specificity Sign language (2025) [Chinese]Sign language video specificityhttps://static.igem.org/peertube/streaming-playlists/hls/539b354d-0b15-405d-8983-60b413c64461/4431db7a-51cd-4bf1-b541-fd44e38668ef-master.m3u8https://video.igem.org/videos/embed/bjN92hWfcwFkjpW8tTtJur6012025-10-05T10:03:59.996ZYES2025 TeamsNOhttps://video.igem.org/w/gxJa6iUB5YUsB51hBPCBwphttps://video.igem.org/lazy-static/thumbnails/cb0036e7-7161-4555-b353-710abffeb47d.jpgAFMU-China: cell Sign language (2025) [Chinese] Sign language video cell； https://2025.igem.wiki/afmu-china/homehttps://static.igem.org/peertube/streaming-playlists/hls/7de71de5-fa35-4906-9343-06e40d33393f/0110c78e-3f25-4cad-8607-9a2a4c8efa50-master.m3u8https://video.igem.org/videos/embed/gxJa6iUB5YUsB51hBPCBwp5002025-10-05T10:22:18.807ZYES2025 TeamsNOhttps://video.igem.org/w/p8kHgDse9iZDiVWasdb3zchttps://video.igem.org/lazy-static/thumbnails/f4590863-8aa4-4d88-bede-85b7c69c9ce5.jpgAFMU-China: cancer Sign language (2025) [Chinese]Sign language video cancerhttps://static.igem.org/peertube/streaming-playlists/hls/bb488b11-f0c7-43ab-a53d-f6dd4109209d/9868655c-3d79-4213-9454-03f6ec58736f-master.m3u8https://video.igem.org/videos/embed/p8kHgDse9iZDiVWasdb3zc5002025-10-05T10:24:33.770ZYES2025 TeamsNOhttps://video.igem.org/w/gqAHxd2YtKkCHD8NexDv39https://video.igem.org/lazy-static/thumbnails/0e2c0c90-92e5-414c-ac12-72b10076aeb5.jpgAFMU-China: prevention sign language (2025) [Chinese]Sign language video preventionhttps://static.igem.org/peertube/streaming-playlists/hls/7ce85332-034d-4cab-a6f7-2e93a99bc368/29d41e18-2fbc-47f3-83c5-6513f0f7aadd-master.m3u8https://video.igem.org/videos/embed/gqAHxd2YtKkCHD8NexDv395012025-10-05T10:32:02.103ZYES2025 TeamsNOhttps://video.igem.org/w/mJByppLR2UyCdCRiKbzGZShttps://video.igem.org/lazy-static/thumbnails/4141d51a-6fa1-42ce-9170-447734fc026f.jpgAFMU-China: General sign language (2025) [Chinese]General sign language videohttps://static.igem.org/peertube/streaming-playlists/hls/a7e9ece4-2f89-4c3c-94c1-32be8284d724/b1daf7a8-c466-47cc-8a36-617dfae97979-master.m3u8https://video.igem.org/videos/embed/mJByppLR2UyCdCRiKbzGZS5002025-10-05T10:32:54.187ZYES2025 TeamsNOhttps://video.igem.org/w/jpZ2Cv6XPZoBjgYxTBFkvnhttps://video.igem.org/lazy-static/thumbnails/653419ca-45be-491b-8860-8fb5de66d799.jpgAFMU-China: Early sign language (2025) [Chinese] Early sign language video https://static.igem.org/peertube/streaming-playlists/hls/951dbf55-9fb8-4a5a-8a87-ae4b024d713b/fca69988-d7a6-45f9-a68b-4e04e6257d76-master.m3u8https://video.igem.org/videos/embed/jpZ2Cv6XPZoBjgYxTBFkvn6022025-10-05T10:43:02.992ZYES2025 TeamsNOhttps://video.igem.org/w/adnCsQtFAVckcFruzu5GF7https://video.igem.org/lazy-static/thumbnails/20d307c6-5e23-4a69-b6b3-0ca0427e29d3.jpgHangzhou-SDG: Hardware Test (2025) [English]This video documents a hardware test of our CatWell system: https://2025.igem.wiki/hangzhou-sdg/hardware.https://static.igem.org/peertube/streaming-playlists/hls/4a9c8098-0362-4647-87f6-4402582024fc/c00e2d9a-981d-42e8-b99d-a46ab2c56d29-master.m3u8https://video.igem.org/videos/embed/adnCsQtFAVckcFruzu5GF7580152025-10-04T12:03:11.874ZYES2025 TeamsNOhttps://video.igem.org/w/sSRjyjokiB5A4i29Hg8NhShttps://video.igem.org/lazy-static/thumbnails/463c018d-6975-490b-87af-ee175bfa3034.jpgHangzhou-SDG: Hardware Test With Video (2025) [English]This video documents a hardware test of our CatWell system with video clips: https://2025.igem.wiki/hangzhou-sdg/hardware.https://static.igem.org/peertube/streaming-playlists/hls/d9a7302b-3d57-416d-838d-1c3eeee7e572/c35eb4dd-3139-420d-8d4d-2763e5af5334-master.m3u8https://video.igem.org/videos/embed/sSRjyjokiB5A4i29Hg8NhS16012025-10-04T13:06:36.169ZYES2025 TeamsNOhttps://video.igem.org/w/mo3UtRqx8SMjWaEC5m9uBwhttps://video.igem.org/lazy-static/thumbnails/f4926a81-8568-4b68-a9ba-bd55a76f7d87.jpgZJU-China: chip-simulation (2025)the comsol simulation of flu chiphttps://static.igem.org/peertube/streaming-playlists/hls/a50aed22-5d3e-4432-8300-015f502889fc/2f44bacc-b459-4dc1-b0e2-a431c814ce2e-master.m3u8https://video.igem.org/videos/embed/mo3UtRqx8SMjWaEC5m9uBw40142025-10-04T13:06:43.747ZigemcomsolsimulationchipYES2025 TeamsNOhttps://video.igem.org/w/qGevoVuPL5r78VyEBSpTtxhttps://video.igem.org/lazy-static/thumbnails/16648996-3fca-4f18-8807-06b78eb58a66.jpgSHSBNU-China: Actual demonstration of fermentation device v1.0 (2025)This is the test video of our fermentation device v1.0 Our wiki : https://2025.igem.wiki/shsbnu-china/hardware Production: Zishi Gao Music: Gymnopdie No.1https://static.igem.org/peertube/streaming-playlists/hls/c7f9670a-deef-488f-9b96-e40b2f202881/5c03d269-bb46-4119-a428-8468162ad383-master.m3u8https://video.igem.org/videos/embed/qGevoVuPL5r78VyEBSpTtx38032025-10-04T12:05:38.699ZYES2025 TeamsNOhttps://video.igem.org/w/bqMHJrDYF5VDjh2sEymF8Shttps://video.igem.org/lazy-static/thumbnails/a8b5a3af-ee5e-43c9-b65e-3e900624e09d.jpgSMU-Union-China: mv1-1 (2025)SMU-Union-China: mv1-1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/547169a8-bcd5-4b4e-9a92-2fa0f2217224/7328e0c0-a6f8-4264-8239-d0c8bc4174f8-master.m3u8https://video.igem.org/videos/embed/bqMHJrDYF5VDjh2sEymF8S17012025-10-04T12:03:58.825ZYES2025 TeamsNOhttps://video.igem.org/w/23vViEiyUJWjdjHSk21T17https://video.igem.org/lazy-static/thumbnails/2d104e32-91ab-4a79-a2de-11ab971d9796.jpgThailand-RIS: Dr. Wijarn Simachaya interview clip (2025) [English]Thailand-RIS: Dr. Wijarn Simachaya interview clip (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/08731080-cc80-479b-9363-3f6c9bcfaf22/bde3e8cd-4092-4dce-982a-744a72974fe2-master.m3u8https://video.igem.org/videos/embed/23vViEiyUJWjdjHSk21T1716032025-10-04T12:04:08.277ZYES2025 TeamsNOhttps://video.igem.org/w/4scFsPBpQG8PJLzW4rz7D7https://video.igem.org/lazy-static/thumbnails/6fb7c3e6-df83-4c92-81b9-20f2fec9f8c4.jpgSHSBNU-China: Normal operation of fermentation device v3.1 (2025)This is the video of normal operation of fermentation device v3.1 Our wiki : https://2025.igem.wiki/shsbnu-china/hardware Production: Zishi Gaohttps://static.igem.org/peertube/streaming-playlists/hls/1bf3f3c9-8a9f-4de0-a817-0505d9dacdd8/198eeb75-cce6-4043-a49f-d05199b4abe2-master.m3u8https://video.igem.org/videos/embed/4scFsPBpQG8PJLzW4rz7D726042025-10-04T12:37:42.925ZYES2025 TeamsNOhttps://video.igem.org/w/2AVMAYMZAscjQCfE7bGyQnhttps://video.igem.org/lazy-static/thumbnails/61db6b78-a259-4b7a-bb50-f2eaa40510d5.jpgThailand-RIS: Dr. Witchuda Daud Interview (2025) [English]Thailand-RIS: Dr. Witchuda Daud Interview (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/0cf992e4-97a2-432f-b184-3a1ec6eb2e95/9988991a-4f5f-428f-8454-c469f2189264-master.m3u8https://video.igem.org/videos/embed/2AVMAYMZAscjQCfE7bGyQn37032025-10-04T12:39:35.937ZYES2025 TeamsNOhttps://video.igem.org/w/4YRmPoTfgdSSe2WUVd94jLhttps://video.igem.org/lazy-static/thumbnails/ec7cc1aa-3d91-41eb-aa66-a6bc55901ae3.jpgThailand-RIS: Dr. Aopeau Imvittiya Interview Clip (2025) [English]Thailand-RIS: Dr. Aopeau Imvittiya Interview Clip (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/203b7c51-2124-43c8-9ea7-40d97752bacc/25575f83-4858-45fc-85aa-cc0355dce3a9-master.m3u8https://video.igem.org/videos/embed/4YRmPoTfgdSSe2WUVd94jL25032025-10-04T13:07:29.758ZYES2025 TeamsNOhttps://video.igem.org/w/igbfYJSZ2rrwwZmpExxfk4https://video.igem.org/lazy-static/thumbnails/dbde9e8b-e5fb-45eb-b992-92b771fa5c39.jpgThailand-RIS: Experiment 1 (2025)Thailand-RIS: Experiment 1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/8bc9d5ec-675f-41e5-bcbd-3772e2586891/9329d887-4c48-46a5-be3d-ade53e718a9d-master.m3u8https://video.igem.org/videos/embed/igbfYJSZ2rrwwZmpExxfk48002025-10-05T10:03:08.676ZYES2025 TeamsNOhttps://video.igem.org/w/eGSowmMaLbod8SbZNmBUnZhttps://video.igem.org/lazy-static/thumbnails/b3adc6fd-31c0-4a13-8bbb-996d9e8879b9.jpgSMU-Union-China: mv1-2 (2025)SMU-Union-China: mv1-2 (2025)https://static.igem.org/peertube/streaming-playlists/hls/6efb9b36-1dce-4f3b-b3a9-3eaa030c0103/609f1d72-bbf0-4ae4-9c40-31b2e6011226-master.m3u8https://video.igem.org/videos/embed/eGSowmMaLbod8SbZNmBUnZ19032025-10-04T12:39:48.543ZYES2025 TeamsNOhttps://video.igem.org/w/8LsWVt7U5uWi2M6w3kJ351https://video.igem.org/lazy-static/thumbnails/26c1bd8c-d75e-41dd-a381-a3b7dcc14d79.jpgSHSBNU-China: Fermentation device v3.1 assembly (2025)This is the fermentation device v3.1 assembly video Our wiki : https://2025.igem.wiki/shsbnu-china/hardware Production: Zishi Gao Music: Gymnopdie No.2https://static.igem.org/peertube/streaming-playlists/hls/3ee54d9a-3bc6-4e73-8aa4-5c8dd3e49430/35a492ea-3055-49ec-8836-129d771d5c29-master.m3u8https://video.igem.org/videos/embed/8LsWVt7U5uWi2M6w3kJ3511880172025-10-04T13:22:53.415ZYES2025 TeamsNOhttps://video.igem.org/w/1PJYzsFsLeYv75ideGZhFdhttps://video.igem.org/lazy-static/thumbnails/c76e1652-5801-4737-8b69-fb5ed6331c4e.jpgSMU-Union-China: mv1-3 (2025)SMU-Union-China: mv1-3 (2025)https://static.igem.org/peertube/streaming-playlists/hls/06aa7117-37e0-4161-b471-42e343cf732a/e2ce5687-a261-4a6f-988f-8d5fdb1517cf-master.m3u8https://video.igem.org/videos/embed/1PJYzsFsLeYv75ideGZhFd24032025-10-04T13:28:45.888ZYES2025 TeamsNOhttps://video.igem.org/w/8Yf4YKghHMqsj21VfBFFpehttps://video.igem.org/lazy-static/thumbnails/eda6bc5f-2021-4436-bdc4-9974bdc210fc.jpgZJU-China: Strand Replacing Reaction Diffusion Visualization (2025) [English]A demo of visualization of the stand replacing reaction diffusion process.https://static.igem.org/peertube/streaming-playlists/hls/408a4ab4-998b-4c7f-8133-71bca25b3207/c57e0a8c-bf84-4238-afb9-730bae6bea79-master.m3u8https://video.igem.org/videos/embed/8Yf4YKghHMqsj21VfBFFpe220252025-10-05T10:32:20.355ZYES2025 TeamsNOhttps://video.igem.org/w/8tyKFzMWVsc9mGASxSjJMmhttps://video.igem.org/lazy-static/thumbnails/cb798edf-c6ae-4820-8f8b-1ddcb700fd8b.jpgDUT-China: LNP Preparation Showdown (2025) [English]DUT-China: LNP Preparation Showdown (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/3c893cbc-a0a5-4c41-8e93-71bc668879fe/bfe26241-63d0-4358-9ea0-22b77d6ba27a-master.m3u8https://video.igem.org/videos/embed/8tyKFzMWVsc9mGASxSjJMm1070192025-10-04T13:29:42.430ZYES2025 TeamsNOhttps://video.igem.org/w/vvEyF2SqeYEpk7HCiLBW3ghttps://video.igem.org/lazy-static/thumbnails/a4f65c37-f374-4416-bbb6-b405730d2e3b.jpgNEFU-China: Design 11 (2025)a video in the wiki https://2025.igem.wiki/nefu-china/https://static.igem.org/peertube/streaming-playlists/hls/eefd5b20-7b65-45cb-a005-43210c671773/24453ce0-5834-4fb9-98de-a5c2dfdbba90-master.m3u8https://video.igem.org/videos/embed/vvEyF2SqeYEpk7HCiLBW3g17012025-10-04T12:40:14.932ZYES2025 TeamsNOhttps://video.igem.org/w/5Ub4iCD8aMjFnnPh4aA67thttps://video.igem.org/lazy-static/thumbnails/ed797390-c13b-44bd-8f73-dfd901117758.jpgIOANNINA: ДЕВOУКА И ПЛАТАН - Audiobook (2025) [Russian]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/27ad6db2-82c8-4aa5-8be4-ae95bcad976b/55b5c89d-d486-4e77-9db8-609e1121dcde-master.m3u8https://video.igem.org/videos/embed/5Ub4iCD8aMjFnnPh4aA67t650052025-10-05T10:45:58.264Zaudiobookigemioannina2025igemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/eWMfnKqQ3unb9pJjARAhSnhttps://video.igem.org/lazy-static/thumbnails/e78099d2-92b6-4dec-9c12-ca1df437b3ef.jpgIOANNINA: La Niña y el Platano - Audiobook (2025) [Spanish]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/70ecd9e3-f7de-4fc8-88f7-021e695bf6c9/1fc7c163-2771-4218-aa9a-e8a04fa60cfa-master.m3u8https://video.igem.org/videos/embed/eWMfnKqQ3unb9pJjARAhSn360012025-10-05T10:51:01.240Zigemfairytalesaudiobookigemioannina2025igemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/ukVddLPKD6bq1L6YzYhd8Hhttps://video.igem.org/lazy-static/thumbnails/aabeaf4d-b141-4786-ad54-0597e8c8506d.jpgMunich: macOS docker installation guide (2025) [English]Installation guide for iGEM Munich 2025 InkSight's MESA Designer for Mac OS docker. https://2025.igem.wiki/munich/https://static.igem.org/peertube/streaming-playlists/hls/e587ce6d-ea4a-46ad-9c0a-92056a54058f/d82333b9-be54-4365-a1e7-d7b233d8f1ff-master.m3u8https://video.igem.org/videos/embed/ukVddLPKD6bq1L6YzYhd8H345022025-10-05T10:22:05.768ZInstallationInkSightiGEM Munich 2025iGEM MunichYES2025 TeamsNOhttps://video.igem.org/w/4vchTTf9CPHoi53oSa4pbVhttps://video.igem.org/lazy-static/thumbnails/8ba76ced-f1c6-4ffe-a815-ec86619f8d16.jpgIOANNINA: La Fille et la Platane - Audiobook (2025) [French]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/1c5ef19d-a530-4d76-8cfd-42be1bd5da7d/539db874-3c07-4497-94d4-ca371be82037-master.m3u8https://video.igem.org/videos/embed/4vchTTf9CPHoi53oSa4pbV318012025-10-05T10:52:28.943Zfairytalesaudiobookigemioannina2025igemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/28JP3xR2Hh9DobFgqt8jNqhttps://video.igem.org/lazy-static/thumbnails/cea7d931-c8e9-4bf4-bd9f-1c5da74b2070.jpgIOANNINA: Flickan Och Platanen - Audiobook (2025) [Swedish]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/) https://static.igem.org/peertube/streaming-playlists/hls/092dba73-cb10-4023-bab1-64c366776714/ab10258d-b084-46b2-92ae-9d4a7cf72394-master.m3u8https://video.igem.org/videos/embed/28JP3xR2Hh9DobFgqt8jNq285022025-10-05T10:54:15.194Zfairytaleigemioannina2025audiobookigemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/aTjPHt3eH3BShGeccayqfphttps://video.igem.org/lazy-static/thumbnails/8e50d3a5-1e33-4d82-964a-6bc4b21e555f.jpgIOANNINA: Das Madchen und die Platane - Audiobook (2025) [German]A video for iGEM IOANNINA 2025. Audiobook for one of our fairytales. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/500cc7b4-3076-4319-9b18-c3faa1e37c53/f0072e81-663b-4f3d-878d-60bf94f41108-master.m3u8https://video.igem.org/videos/embed/aTjPHt3eH3BShGeccayqfp372032025-10-05T11:00:51.509Zigemfairytaleigemioannina2025audiobookigemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/71Vr4iNXf9N4HdrsEF9pR4https://video.igem.org/lazy-static/thumbnails/2e6d7a92-049f-4940-ba56-911c6291fecf.jpgBIT-China:Cultivating Light-Responsive Yeast (2025) [Chinese]Light-Controlled Dyeing Example (IGEM): Cultivate Yeast in the Shaker and Synthesize Dyes Through Light Irradiation https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/30b7c2b7-6288-4de4-82b2-e7b12fe218c9/b15c9fc7-d120-4b1e-a165-6f512c964bab-master.m3u8https://video.igem.org/videos/embed/71Vr4iNXf9N4HdrsEF9pR450142025-10-04T12:04:19.413ZYES2025 TeamsNOhttps://video.igem.org/w/dVKRP8h9zXnLV5BQH2SLrmhttps://video.igem.org/lazy-static/thumbnails/96c81cfb-8224-4a84-a333-b852c3b17743.jpgBIT-China: Feedback Test 1 (2025) [Chinese]The video was recorded during real-time testing and control using the third version of the GUI interface. It demonstrates the entire process, from loading previously configured parameters using the "Load" button, to using the feedback module to light up the light array, and finally, to real-time light intensity data transmission. https://2025.igem.wiki/bit-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/68af1cd9-c8b4-4586-b106-0187d81130ee/754e39ca-2f36-42f7-9384-15ba6d3dc5b2-master.m3u8https://video.igem.org/videos/embed/dVKRP8h9zXnLV5BQH2SLrm600162025-10-04T12:41:38.025ZYES2025 TeamsNOhttps://video.igem.org/w/evRSHuZxoMkFmVqViWv9KKhttps://video.igem.org/lazy-static/thumbnails/94a748fe-fe6e-41e9-b3ff-f1ad1dec752c.jpgBIT-China: Feedback Test 2 (2025)The video shows the testing situation after enabling the fourth version of the GUI, which controls 25 sensor channels simultaneously. For demonstration purposes, we selected the outermost five BASE blocks to showcase the feedback module functionality. https://2025.igem.wiki/bit-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/6d721bac-b8d0-4b64-b5b8-aa753d4262d1/e43ba699-17a6-4b19-b7a6-1d14bbf48eb2-master.m3u8https://video.igem.org/videos/embed/evRSHuZxoMkFmVqViWv9KK200202025-10-04T13:31:04.225ZYES2025 TeamsNOhttps://video.igem.org/w/kidmh14FShWaKEtP9ZRyxbhttps://video.igem.org/lazy-static/thumbnails/614b5555-caaa-4fa3-aa2e-e4a2ce17ef7d.jpgBIT-China: Flashing Effect (2025) [Chinese]BIT-China: Flashing Effect (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/9c44e3ab-39ac-45ed-81ca-75df2c1bdc08/88d2a3f8-8368-46ae-91eb-ea7662b92fec-master.m3u8https://video.igem.org/videos/embed/kidmh14FShWaKEtP9ZRyxb230152025-10-05T10:01:18.711ZYES2025 TeamsNOhttps://video.igem.org/w/pp89VFVe38qkQ4z8Mro2sjhttps://video.igem.org/lazy-static/thumbnails/c68c3320-39c6-4882-a80c-5d8edc26f48d.jpgBIT-China: Switchable Blue-Green LED (2025) [Chinese]Light-Controlled Dyeing Example (IGEM): Blue-Green Light Switching LED Display for Letter "I" https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/bd7cb462-bb41-49e8-a457-438127130b7a/99e2cdb8-0fe0-4233-b677-9cc8fab8d7f7-master.m3u8https://video.igem.org/videos/embed/pp89VFVe38qkQ4z8Mro2sj11062025-10-05T10:02:57.816ZYES2025 TeamsNOhttps://video.igem.org/w/8VnVhbiZ4cwPMXzQfftqAShttps://video.igem.org/lazy-static/thumbnails/558c79d3-f490-4801-b807-b7e3fa598f19.jpgBIT-China: Assemble & Rotate Animation (2025)This animation showcases the assembly process of our custom-designed light-controlled hardware device, created in SolidWorks. It begins with the step-by-step construction of the device, followed by a 360-degree rotation of the fully assembled unit to reveal its complete structure. This hardware is central to our project, providing a stable and controllable platform for our experiments. https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/4023e5f3-9c58-4ac7-bf38-d3cd99cc569e/7bed23a5-f7c7-4c7d-8eb0-fb13f112223c-master.m3u8https://video.igem.org/videos/embed/8VnVhbiZ4cwPMXzQfftqAS11032025-10-05T10:04:34.877ZYES2025 TeamsNOhttps://video.igem.org/w/bDDi3UY6KNemgGDvvnTtU4https://video.igem.org/lazy-static/thumbnails/6f4ebefc-7169-4034-bc61-a4351cbbce5a.jpgIOANNINA: How to install PyMOL (2025)Step by step guide on how to install PyMOL. Link to their site: https://pymol.org/ Link to iGEM IOANNINA 2025 Wiki: https://2025.igem.wiki/ioannina/https://static.igem.org/peertube/streaming-playlists/hls/563ce3aa-28a9-4c11-b992-04c2ecbba9bf/133dec4e-2f8b-4e2b-bf11-69900d434c0a-master.m3u8https://video.igem.org/videos/embed/bDDi3UY6KNemgGDvvnTtU448012025-10-04T12:06:16.064Zigem ioanninaguidehow topymolYES2025 TeamsNOhttps://video.igem.org/w/9vRp1VJVjp6xF8X6PKqFMzhttps://video.igem.org/lazy-static/thumbnails/061e6dd1-aebd-4138-93ad-579ddea08329.jpgIonis-Paris: Interview Liya JU (2025) [French]Ionis-Paris: Interview Liya JU (2025) [French]https://static.igem.org/peertube/streaming-playlists/hls/44f41ed8-300f-4377-b1e0-f5ecf09f5a5f/bd5faf3a-dec1-4412-b6c6-e2834f5ceea3-master.m3u8https://video.igem.org/videos/embed/9vRp1VJVjp6xF8X6PKqFMz133062025-10-04T12:10:57.751ZYES2025 TeamsNOhttps://video.igem.org/w/3dWAgzF5FaYJUKcNPnxY9Dhttps://video.igem.org/lazy-static/thumbnails/18324bc3-daf0-42d4-ac48-77f0f3bd1310.jpgIonis-Paris: Interview Neoplants (2025) [English]Ionis-Paris: Interview Neoplants (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/1200d869-7b69-4c63-b464-4e54fd72555d/3e92d5c2-b057-4375-a9cd-be5bd389245f-master.m3u8https://video.igem.org/videos/embed/3dWAgzF5FaYJUKcNPnxY9D228042025-10-04T12:47:50.212ZYES2025 TeamsNOhttps://video.igem.org/w/s2mZ86frDaxUZcrR63D4Gshttps://video.igem.org/lazy-static/thumbnails/5b8023dc-0c36-4e35-bda3-6e78778f8a76.jpgIonis-Paris: Interview Roham Parsa (2025) [English]Ionis-Paris: Interview Roham Parsa (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/d2be4804-2302-429b-b79e-3320b6cee45e/10d0886b-54c2-42dd-acec-607efa50af2d-master.m3u8https://video.igem.org/videos/embed/s2mZ86frDaxUZcrR63D4Gs412082025-10-04T13:47:58.296ZYES2025 TeamsNOhttps://video.igem.org/w/pTohB7ygDxnAGFUPuiwf7dhttps://video.igem.org/lazy-static/thumbnails/60dcd625-4c03-4198-b513-6c65811b25ab.jpgIOANNINA: Discover with us the world of plants! (2025) [Greek]An educational video for iGEM IOANNINA 2025! Discover the world of plants. Find wiki here (https://2025.igem.wiki/ioannina/)https://static.igem.org/peertube/streaming-playlists/hls/c16edb1a-4d39-4b57-8a6d-d76772878460/8b6e0e64-7802-4fd5-8448-ceb585627cb3-master.m3u8https://video.igem.org/videos/embed/pTohB7ygDxnAGFUPuiwf7d227072025-10-05T10:56:35.432Zigemioannina2025igemioanninaigemYES2025 TeamsNOhttps://video.igem.org/w/pLmnGhHgYRdiv6sxpKjDxEhttps://video.igem.org/lazy-static/thumbnails/252d8305-b57b-4bbd-b339-140bb0012718.jpgTechnion-Israel: Instructions of ABC Model (2025) [English]In this video, Syntropica's team introduces the **ABC Kinetics Model**, a computational framework designed to simplify and accelerate enzyme kinetics analysis. The video will walk through: - **Step-by-step** guidance on how to apply the model to experimental data. - **Practical demonstrations** with real examples for improved understanding. Visit the team's **Model page**, for more information: https://2025.igem.wiki/technion-israel/model https://static.igem.org/peertube/streaming-playlists/hls/c0737894-3136-4c28-9971-b9f275226500/40ab9fe8-afeb-43ed-b49c-3fecfbf2e9a4-master.m3u8https://video.igem.org/videos/embed/pLmnGhHgYRdiv6sxpKjDxE267092025-10-04T12:19:51.033ZYES2025 TeamsNOhttps://video.igem.org/w/gMcUvuGxqwxiA6oPGw3avnhttps://video.igem.org/lazy-static/thumbnails/a33214bd-1fbf-462c-ad22-017e404b9c7f.jpgNAU-CHINA: gromacs result (2025)NAU-CHINA: gromacs result (2025)https://static.igem.org/peertube/streaming-playlists/hls/7fc8e2ef-484a-4550-a274-7ea5c68e7bdb/51787f1c-ea82-4298-a181-5da6dabf8ff2-master.m3u8https://video.igem.org/videos/embed/gMcUvuGxqwxiA6oPGw3avn10002025-10-05T10:22:23.414ZYES2025 TeamsNOhttps://video.igem.org/w/8NiZbb8xA2pH2ZDEwUZNMuhttps://video.igem.org/lazy-static/thumbnails/3486cf0a-c9ff-4f70-9b5d-518303d5c852.jpgKULeuven: antifungal_peptide_2 (2025)AMP visualisation of P83597 (UniProt ID) in chimeraXhttps://static.igem.org/peertube/streaming-playlists/hls/3f2744a6-f636-4347-a772-d359d5219aae/9449a5c5-c3d3-486a-a9a8-d2d6eef5db5e-master.m3u8https://video.igem.org/videos/embed/8NiZbb8xA2pH2ZDEwUZNMu7092025-10-04T13:18:41.725ZYES2025 TeamsNOhttps://video.igem.org/w/71cSniT6tiqum4sNn524bPhttps://video.igem.org/lazy-static/thumbnails/461ee43c-c4c6-4ee5-895a-4d35e0c13705.jpgKULeuven: cecropin (2025)AMP visualisation of P83403 (UniProt ID) in chimeraXhttps://static.igem.org/peertube/streaming-playlists/hls/309e2568-55ae-4397-b462-9705c80639e7/949bd450-9a29-4212-8366-9ff969dab472-master.m3u8https://video.igem.org/videos/embed/71cSniT6tiqum4sNn524bP7072025-10-04T13:21:17.771ZYES2025 TeamsNOhttps://video.igem.org/w/2QpD9GdVAGnxquScosiCxhhttps://video.igem.org/lazy-static/thumbnails/a2051182-966d-4dd1-8d59-b8032aa4d444.jpgKULeuven: hevein-like_antimicrobial_peptide-EEcbp (2025)AMP visualisation of Q7X9R9 (UniProt ID) on chimeraXhttps://static.igem.org/peertube/streaming-playlists/hls/0edb689a-5971-4fb7-afb8-e7983044cdee/0fc8309d-a95d-462a-88b1-f55065fd3b36-master.m3u8https://video.igem.org/videos/embed/2QpD9GdVAGnxquScosiCxh7082025-10-04T14:07:56.892ZYES2025 TeamsNOhttps://video.igem.org/w/9rfde6DGbDdSY2yXMLnEvrhttps://video.igem.org/lazy-static/thumbnails/d1598c74-4570-4d22-8266-fec5e45cef25.jpgKULeuven: lucymicin (2025)AMP visualisation of A0A023 (UniProt ID) in chimeraXhttps://static.igem.org/peertube/streaming-playlists/hls/444f7613-d998-4ea8-bad7-7cd060567beb/64fb480b-c53c-4e62-aad3-e15c6657b184-master.m3u8https://video.igem.org/videos/embed/9rfde6DGbDdSY2yXMLnEvr7082025-10-05T10:01:13.733ZYES2025 TeamsNOhttps://video.igem.org/w/3FYYQs9J55pE1wreZZv1JMhttps://video.igem.org/lazy-static/thumbnails/afdf3f2f-11b5-4fc8-ac65-977bd02dd20c.jpgKULeuven: vicilin_like_antimicrobial_peptides_2-2 (2025)AMP visualisation of Q9SPL4 (UniProt ID) in chimeraXhttps://static.igem.org/peertube/streaming-playlists/hls/15c76643-e264-42d4-b46b-6cb637a57f29/0352d564-2ea2-43ef-a934-b0b1ee2c7116-master.m3u8https://video.igem.org/videos/embed/3FYYQs9J55pE1wreZZv1JM70132025-10-05T10:03:03.254ZYES2025 TeamsNOhttps://video.igem.org/w/5iprQjG2TtfWPuj5iNbBjVhttps://video.igem.org/lazy-static/thumbnails/2bd99051-12e3-4280-b0c1-ba59d1110238.jpgKULeuven: amp01_bilipdlayer (2025)Shortlisted AMP Vicilin-like antimicrobial peptides 2-2 interaction with bilipid membrane visualisation using PPM 3.0 server and iCn3Dhttps://static.igem.org/peertube/streaming-playlists/hls/22d2a5c0-9fcd-4f56-9ffe-e9fe3c606e45/1f1a1fe9-66c1-4bb4-b95b-8e11c584e3a2-master.m3u8https://video.igem.org/videos/embed/5iprQjG2TtfWPuj5iNbBjV480192025-10-05T10:19:21.891ZYES2025 TeamsNOhttps://video.igem.org/w/fGxpPZosBed5ByTUdwr8eZhttps://video.igem.org/lazy-static/thumbnails/be69b253-2336-40c3-9fcf-f210d5573fb1.jpgECUST-China: untitled 2 (2025) [English]ECUST-China: untitled 2 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/77090cb5-74b9-47ee-976d-f01f0ac5c2ef/9e9bd997-7583-4241-8763-f52025955db6-master.m3u8https://video.igem.org/videos/embed/fGxpPZosBed5ByTUdwr8eZ602592025-10-04T13:39:34.311ZYES2025 TeamsNOhttps://video.igem.org/w/25DMsnAXuUc7iqSKKMWuNChttps://video.igem.org/lazy-static/thumbnails/4d613169-97bf-4280-892f-562863fdbd3f.jpgFudan: microbial painting (2025)Fudan: microbial painting (2025)https://static.igem.org/peertube/streaming-playlists/hls/08bf6616-04dc-427e-81c3-00fee686a860/4ef9a0dd-942a-471f-89d9-3cd0f6f3f25d-master.m3u8https://video.igem.org/videos/embed/25DMsnAXuUc7iqSKKMWuNC97582025-10-04T13:45:18.294ZYES2025 TeamsNOhttps://video.igem.org/w/qDNHVcvL24P46gsXf2ww8Jhttps://video.igem.org/lazy-static/thumbnails/93d5c365-8a55-4a88-bf93-4c08e2c4b046.jpgECUST-China: untitled 1 (2025) [English]ECUST-China: untitled 1 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c7a2a427-3464-42d6-99bd-6b411d346638/7348d9aa-c177-4aff-ab70-b3e8668b8f39-master.m3u8https://video.igem.org/videos/embed/qDNHVcvL24P46gsXf2ww8J1702812025-10-04T13:45:27.283ZYES2025 TeamsNOhttps://video.igem.org/w/98uFRaTgZtsPTZ43yaD8yfhttps://video.igem.org/lazy-static/thumbnails/56880919-1dd1-44b2-981e-616cec6ed15a.jpgECUST-China: untitled 3 (2025) [English]ECUST-China: untitled 3 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/41d4fea3-62c9-458c-b63f-dfa6ab5083a2/29e0c344-4a74-4169-bc34-895ae1f6ae25-master.m3u8https://video.igem.org/videos/embed/98uFRaTgZtsPTZ43yaD8yf802582025-10-04T14:10:44.770ZYES2025 TeamsNOhttps://video.igem.org/w/dj2hZx8UKBWaMC2RUvr4RZhttps://video.igem.org/lazy-static/thumbnails/6e98e343-59ee-4376-8e9e-56ca4c4ee2c3.jpgECUST-China: untitled 4 (2025) [English]ECUST-China: untitled 4 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/63b1d93d-bd81-4e95-957e-b3aebc62f6b7/34c2ba33-ad75-4466-9671-d7e151d70433-master.m3u8https://video.igem.org/videos/embed/dj2hZx8UKBWaMC2RUvr4RZ502272025-10-05T10:01:16.280ZYES2025 TeamsNOhttps://video.igem.org/w/wE7GwGqkKWmkpUcRp87Ejdhttps://video.igem.org/lazy-static/thumbnails/80bbbb0c-f763-469a-b976-83e11b3e54ef.jpgECUST-China: untitled 5 (2025) [English]ECUST-China: untitled 5 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/f8448d23-f181-4c28-b40f-0ff62688fcf8/02d9ba93-bcfc-4ce1-ae4f-e432d1a11028-master.m3u8https://video.igem.org/videos/embed/wE7GwGqkKWmkpUcRp87Ejd1601932025-10-05T10:03:12.519ZYES2025 TeamsNOhttps://video.igem.org/w/9fTPtkqgFxH6a9oNcRbq1chttps://video.igem.org/lazy-static/thumbnails/75136a57-a87e-442c-aaed-23b010ef04d6.jpgECUST-China: untitled 6 (2025) [English]ECUST-China: untitled 6 (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/42dd74d1-d8ce-4499-877d-8cf8573af36b/bca81a38-fd7d-4dc3-af58-8766bc13b244-master.m3u8https://video.igem.org/videos/embed/9fTPtkqgFxH6a9oNcRbq1c55842025-10-05T10:19:31.560ZYES2025 TeamsNOhttps://video.igem.org/w/cLxqUBPi5uBi56D9xJAFtYhttps://video.igem.org/lazy-static/thumbnails/8242b4df-a834-4394-9b57-6a6583196919.jpgBUCT-China: The elusive"pinnacle": where are all the women scientists (2025) [English] In this video, we have presented the challenges faced by female researchers and called on society to pay attention to and address these issues. wiki: https://2025.igem.wiki/BUCT-Chinahttps://static.igem.org/peertube/streaming-playlists/hls/5f4c9ec6-8b74-444c-9310-3e0b6c3762a2/1c558c23-f61c-4cbb-a901-385a00c9ca6e-master.m3u8https://video.igem.org/videos/embed/cLxqUBPi5uBi56D9xJAFtY668062025-10-05T09:44:45.470ZYES2025 TeamsNOhttps://video.igem.org/w/up7H4jqzpHNhXMQx3vLqX5https://video.igem.org/lazy-static/thumbnails/e86cc9ce-f045-43f8-94ec-3246a4688be1.jpgUChicago: Full Wholecraf Animation (2025)Full wholecraf animation for usage in our iGEM website homepage.https://static.igem.org/peertube/streaming-playlists/hls/e5fa1f81-78c6-40eb-815a-94e4bad2098a/23220205-df88-441b-b190-e17687554d50-master.m3u8https://video.igem.org/videos/embed/up7H4jqzpHNhXMQx3vLqX5110172025-10-05T09:31:53.465ZYES2025 TeamsNOhttps://video.igem.org/w/qfVrmUrtLNoAFBuXzp32vihttps://video.igem.org/lazy-static/thumbnails/6a582862-fc0b-4d46-9c24-9bbd298b80ab.jpgHeidelberg: Panel Discusssion on Ethics and Gene Regulation (Short intro) (2025)The video gives a short impression of the Panel Discussion organized by iGEM Team Heidelberg 2025. The video is also featured on our wiki education page https://2025.igem.wiki/heidelberg/https://static.igem.org/peertube/streaming-playlists/hls/c470ac28-9548-425e-bc37-c5d52367cce7/36efd40a-9b5f-4221-a94d-a6d5f51e19cd-master.m3u8https://video.igem.org/videos/embed/qfVrmUrtLNoAFBuXzp32vi370242025-10-05T09:33:59.302ZIGEMTEAMHEIDELBERGPHOENICSheidelbergYES2025 TeamsNOhttps://video.igem.org/w/3vJjuwRf4dk6DyA3sqHVJthttps://video.igem.org/lazy-static/thumbnails/e8df44d4-e567-4f12-ab8b-cea46713202e.jpgUChicago: Elliptical Straight Distance (2025)Elliptical straight distance video to be used in our dry lab pages.https://static.igem.org/peertube/streaming-playlists/hls/1458ed32-99c3-42f9-afc6-838fd760fdbb/02ade462-1274-4386-b881-ea507ab4fc08-master.m3u8https://video.igem.org/videos/embed/3vJjuwRf4dk6DyA3sqHVJt40472025-10-05T09:42:23.149ZYES2025 TeamsNOhttps://video.igem.org/w/9TTQx2UTzxzEyJUbBp4CgChttps://video.igem.org/lazy-static/thumbnails/dfa3ce10-51e3-458b-b467-faa8c8809f3f.jpgUChicago: Md Sim Animation (2025)Md Sim Animation to be used in our dry lab pages.https://static.igem.org/peertube/streaming-playlists/hls/4807fcb3-e344-421d-a647-d84f08b346e2/443f2347-442e-4c9d-a1e5-fa72357666f0-master.m3u8https://video.igem.org/videos/embed/9TTQx2UTzxzEyJUbBp4CgC2062025-10-05T09:52:17.824ZYES2025 TeamsNOhttps://video.igem.org/w/1k7cNa5yCMwMxVzNC2jtxchttps://video.igem.org/lazy-static/thumbnails/d1bd081c-4cf2-4d4b-9fe2-0e7627eb4c01.jpgHKUST-GZ: Molecular Dynamics Simulation of WS-DGAT: Trajectory Visualization (2025) [English]- software: GROMACS - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/02aaf460-6b1a-4dfa-b3c2-aa44aec8013d/4dc4089d-58e8-4674-8307-6484a39b3839-master.m3u8https://video.igem.org/videos/embed/1k7cNa5yCMwMxVzNC2jtxc25092025-10-05T09:54:31.576ZYES2025 TeamsNOhttps://video.igem.org/w/kLykpB9VqSxBHCccCCpnjqhttps://video.igem.org/lazy-static/thumbnails/06e6c9fa-3ced-4345-8b58-af61eeb9c184.jpgHKUST-GZ: Molecular Dynamics Simulation of FARA: Trajectory Visualization (2025) [English]- software: GROMACS - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/a016498e-4670-43b6-97dd-93214a243cb8/58e9ce6d-e3d3-480b-a740-6fb3b1a696fc-master.m3u8https://video.igem.org/videos/embed/kLykpB9VqSxBHCccCCpnjq25012025-10-05T10:03:02.483ZYES2025 TeamsNOhttps://video.igem.org/w/uJmpmyfEf1iR2aM6fbXTMphttps://video.igem.org/lazy-static/thumbnails/9c8517ad-900d-42e9-b5a8-b26e6d0ce903.jpgHKUST-GZ: Molecular Dynamics Simulation of TDC: Trajectory Visualization (2025)- software: GROMACS - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/e8a9b1c4-a9e7-4450-92b6-73aa691e3f2d/d7f44766-b0ac-4dd8-b086-55e30740db39-master.m3u8https://video.igem.org/videos/embed/uJmpmyfEf1iR2aM6fbXTMp25082025-10-05T10:03:45.528ZYES2025 TeamsNOhttps://video.igem.org/w/dfFPaspfb6ypm1egEMYyKdhttps://video.igem.org/lazy-static/thumbnails/98dde4a3-68ca-457a-ac37-e0fd849f5e18.jpgHKUST-GZ: Molecular Dynamics Simulation of TPH: Trajectory Visualization (2025) [English]- software: GROMACS - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/633a9cc8-211a-415e-ab96-ab1fc88882da/e3c91039-87ed-4279-89b2-828765a88149-master.m3u8https://video.igem.org/videos/embed/dfFPaspfb6ypm1egEMYyKd25012025-10-05T10:20:56.266ZYES2025 TeamsNOhttps://video.igem.org/w/qnnTam5a6UPbK7jqZcbsdLhttps://video.igem.org/lazy-static/thumbnails/0b7dff78-f0a2-4e20-af7f-cb43032c38fa.jpgBarcelona-UB: MSA-tool (2025) [English]Barcelona-UB: MSA-tool (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c5576eac-ea60-4671-b92b-3a551815b56c/e16de083-d351-4f25-b37a-5839483208c2-master.m3u8https://video.igem.org/videos/embed/qnnTam5a6UPbK7jqZcbsdL38042025-10-05T10:25:00.390ZYES2025 TeamsNOhttps://video.igem.org/w/dMxUavVrSsbYGCBNWSTz2Jhttps://video.igem.org/lazy-static/thumbnails/fff29abd-92f0-4abf-a460-8b7593099730.jpgHK-Joint-School: malathionY (2025)HK-Joint-School: malathionY (2025)https://static.igem.org/peertube/streaming-playlists/hls/6789cad1-a755-429a-aeba-f80a245c97e0/2f1d2fbb-d69a-4ad8-a486-b06e71e2b60e-master.m3u8https://video.igem.org/videos/embed/dMxUavVrSsbYGCBNWSTz2J10012025-10-05T09:45:09.407ZmalathionHK-JOINT-SCHOOLSynthetic Biology High schoolPESTICIDESYES2025 TeamsNOhttps://video.igem.org/w/d5g5d9CqGF83C4SRynefVJhttps://video.igem.org/lazy-static/thumbnails/21b32728-7cb2-4ba1-8630-54d4470348be.jpgHK-Joint-School: glyphosateY (2025)HK-Joint-School: glyphosateY (2025)https://static.igem.org/peertube/streaming-playlists/hls/61c5ed84-a82d-405b-9c18-0402dd81d8bc/4653a3ca-46a3-444b-b64f-069f2eca379e-master.m3u8https://video.igem.org/videos/embed/d5g5d9CqGF83C4SRynefVJ10002025-10-05T09:53:41.109ZGlyphosateHK-JOINT-SchoolSynthetic BiologyPESTICIDESiGEM2025YES2025 TeamsNOhttps://video.igem.org/w/ppoppYUHRKrS45CcRJV7yfhttps://video.igem.org/lazy-static/thumbnails/ec6de6cd-aa5b-40e9-a5d9-ae4918f16985.jpgHK-Joint-School: glyphosateX (2025)HK-Joint-School: glyphosateX (2025)https://static.igem.org/peertube/streaming-playlists/hls/bd861a47-2aa9-445f-b7d4-683f4a57d96e/10eb5e40-a980-4dc4-9f48-0a0fc3275294-master.m3u8https://video.igem.org/videos/embed/ppoppYUHRKrS45CcRJV7yf10002025-10-05T10:02:35.111ZHK-Joint-School High schoolGlyphosatePESTICIDESSynthetic BiologyYES2025 TeamsNOhttps://video.igem.org/w/okd7e4mHidrF1XS6BmPNm6https://video.igem.org/lazy-static/thumbnails/e30ce3df-d88a-49db-a81a-61270ddb7fd8.jpgHK-Joint-School: chlorpyrifos (2025)HK-Joint-School: chlorpyrifos (2025)https://static.igem.org/peertube/streaming-playlists/hls/b4d7a4c0-25bc-43bb-b70b-e9a4dbfd4fbd/7eb816d5-d213-4baf-9d89-4c23b8861e8a-master.m3u8https://video.igem.org/videos/embed/okd7e4mHidrF1XS6BmPNm610002025-10-05T10:04:35.681Zchlorpyrifos HK-Joint-SchoolPESTICIDES High schoolSynthetic BiologyYES2025 TeamsNOhttps://video.igem.org/w/f6tySmmmBikLUz5tmR3V1thttps://video.igem.org/lazy-static/thumbnails/6d657bb1-02e0-4771-ad4d-de0b06a59e55.jpgAFCM-Egypt: Synthetic biology reel (2025) [Arabic]discuss Synthetic biology concepts and our project idea https://static.igem.org/peertube/streaming-playlists/hls/7223a60f-0e1f-40e2-b055-7a6b7732512f/eb6e7243-fc16-4f2e-bc79-8511150a1ad9-master.m3u8https://video.igem.org/videos/embed/f6tySmmmBikLUz5tmR3V1t69062025-10-05T09:35:01.403ZYES2025 TeamsNOhttps://video.igem.org/w/wibr6weGakv7vAZGoXGuRbhttps://video.igem.org/lazy-static/thumbnails/76d5f396-32ff-46e4-be85-1825003ba8ce.jpgHK-Joint-School: acetamiprid (2025)HK-Joint-School: acetamiprid (2025)https://static.igem.org/peertube/streaming-playlists/hls/f5583bb6-9223-4eb8-9582-cef2d4bc3004/d7a9faed-e7bf-4b20-a45d-e4dc3fa73918-master.m3u8https://video.igem.org/videos/embed/wibr6weGakv7vAZGoXGuRb10012025-10-05T10:22:21.915ZacetamipridHK-Joint-SchoolSynthetic Biology High schoolPESTICIDESYES2025 TeamsNOhttps://video.igem.org/w/749EEJDP2hJVt7oFUT9Gp2https://video.igem.org/lazy-static/thumbnails/1fc15481-bfed-450d-a0ba-23c7d331af46.jpgHK-Joint-School: acephate (2025)HK-Joint-School: acephate (2025)https://static.igem.org/peertube/streaming-playlists/hls/31076780-92d0-432a-9245-04da108ec587/8bb3ae3a-cfba-405b-a365-7fa5005e3ece-master.m3u8https://video.igem.org/videos/embed/749EEJDP2hJVt7oFUT9Gp210002025-10-05T10:23:47.458ZacephateHK-Joint-SchooliGEM2025PESTICIDESSynthetic BiologyYES2025 TeamsNOhttps://video.igem.org/w/aFLmrLBLDxgqqWyoLFidm9https://video.igem.org/lazy-static/thumbnails/2f2a2da7-d705-450e-8dd7-893ec15a94a9.jpgREC-CHENNAI: 16 (2025)3-second video clip of team member No 16 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/4e6f9691-c444-4434-85f5-5a3ec3531b58/870b5b12-2847-49d3-b2eb-b0fd9ec3f9d9-master.m3u8https://video.igem.org/videos/embed/aFLmrLBLDxgqqWyoLFidm92042025-10-05T10:56:40.927ZYES2025 TeamsNOhttps://video.igem.org/w/hCvby3rd1CgU4weQinWkXchttps://video.igem.org/lazy-static/thumbnails/d56f5869-f1fb-4c4c-8fce-1cb575088b7e.jpgREC-CHENNAI: 17 (2025)3-second video clip of team member No 17 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/86aafa71-1e88-4930-ad47-0ece9401150d/0f597062-4c10-46e7-b3a4-7b95abc126b8-master.m3u8https://video.igem.org/videos/embed/hCvby3rd1CgU4weQinWkXc201092025-10-05T10:56:56.129ZYES2025 TeamsNOhttps://video.igem.org/w/by4dtchkhHyHJh5A2Fe5S6https://video.igem.org/lazy-static/thumbnails/55f8d618-6985-4831-97d1-821b6994fdad.jpgREC-CHENNAI: 18 (2025)3-second video clip of team member No 18 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/55752b25-9225-4763-871b-523624f3ed81/5e67ab31-211d-444c-b619-4eaf29667994-master.m3u8https://video.igem.org/videos/embed/by4dtchkhHyHJh5A2Fe5S610922025-10-05T10:57:00.110ZYES2025 TeamsNOhttps://video.igem.org/w/tMFttgrYGigrCxMrSV94p3https://video.igem.org/lazy-static/thumbnails/79371e43-9050-42a4-9da8-b587c85c9956.jpgREC-CHENNAI: 19 (2025)3-second video clip of team member No 19 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/e1078a3a-6c06-4451-b706-3d14c6a79334/15872680-53e9-47e8-821e-282f3c518fb8-master.m3u8https://video.igem.org/videos/embed/tMFttgrYGigrCxMrSV94p310662025-10-05T11:00:56.876ZYES2025 TeamsNOhttps://video.igem.org/w/onjsDURSPun9sXx9YX5j6Qhttps://video.igem.org/lazy-static/thumbnails/f28fd26d-8a6a-4712-9544-2d66ab5d975d.jpgREC-CHENNAI: 20 (2025)3-second video clip of team member No 20 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/b5230bb8-d2cb-46ce-af26-185389371a6a/a9167415-3f7d-4703-90fb-f13036547bcc-master.m3u8https://video.igem.org/videos/embed/onjsDURSPun9sXx9YX5j6Q10852025-10-05T11:01:00.461ZYES2025 TeamsNOhttps://video.igem.org/w/htv3vXsx7HADixrypPf6JGhttps://video.igem.org/lazy-static/thumbnails/b4263d2a-48db-48a4-9ace-40a27640d5f0.jpgREC-CHENNAI: 21 (2025)3-second video clip of team member No 21 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/856932ef-ec3e-4efb-96c5-999aad73ac60/64b3afbc-e54a-438f-9863-9767b33f5698-master.m3u8https://video.igem.org/videos/embed/htv3vXsx7HADixrypPf6JG10772025-10-05T11:01:13.179ZYES2025 TeamsNOhttps://video.igem.org/w/2HQZibYGxEsoVugj219GH6https://video.igem.org/lazy-static/thumbnails/e26c001f-efb5-4b7c-b1f0-43a3cfa8f414.jpgREC-CHENNAI: 23 (2025)3-second video clip of team member No 23 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/0df0d2b5-24f2-404d-a4ef-2e68760791cf/363236ef-2685-422c-823c-dd8b02daad5a-master.m3u8https://video.igem.org/videos/embed/2HQZibYGxEsoVugj219GH6301652025-10-05T11:01:17.894ZYES2025 TeamsNOhttps://video.igem.org/w/fu9K4nYLA4AWMi1EwDpF2uhttps://video.igem.org/lazy-static/thumbnails/aaf7b94f-49bd-4cb9-bcc5-c6271e47961d.jpgMcMaster-Canada: Paper Sensor Design (2025)Short video of the McMaster-Canada's paper sensor design created by Agnes Kung. For more information, see our wiki at: https://2025.igem.wiki/mcmaster-canada/https://static.igem.org/peertube/streaming-playlists/hls/754e278c-5891-491a-aad3-c8f8bc5deefa/2f167ce0-4405-4fec-b65e-5f892146ee3a-master.m3u8https://video.igem.org/videos/embed/fu9K4nYLA4AWMi1EwDpF2u220182025-10-05T09:34:06.203ZYES2025 TeamsNOhttps://video.igem.org/w/oLEPVWLZQf286q2jRktW1zhttps://video.igem.org/lazy-static/thumbnails/15b64d43-4a2d-4da9-a7db-8a7cebaf9003.jpgMcGill: Stretch Animation (2025)An animation illustrating the strength of Cohera to bind cells together. https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/b865b439-cd1b-46ae-888d-6ae1c485dcc1/0d666d56-3ea0-4b17-95e2-9af3f2fb9e74-master.m3u8https://video.igem.org/videos/embed/oLEPVWLZQf286q2jRktW1z10082025-10-05T09:53:45.656ZCovalentAdhesionMcGillCoheraYES2025 TeamsNOhttps://video.igem.org/w/qB98eHXufpnewca5A15X8Chttps://video.igem.org/lazy-static/thumbnails/9a60b6b6-2b7c-4056-88eb-5912ffa193ab.jpgUNICAMP-Brazil: Limeira Citrus Farm (2025) [Portuguese]Join us on a visit to Thiago and his father’s farm in Limeira, São Paulo, where the tradition of orange farming faces major challenges. For over 30 years, this family has cultivated oranges with dedication, but in the past ten years, diseases such as greening and citrus canker have devastated their crops. In this video, we take a close look at the impacts of these diseases: small, asymmetrical oranges, trees being removed, and the daily effort to contain the spread of greening. Thiago shares striking figures on their losses and explains how many neighbors have abandoned orange farming. This visit allowed us to better understand the reality of local producers and reinforces the importance of our project, aligning scientific goals with the sustainability of citrus farming.https://static.igem.org/peertube/streaming-playlists/hls/c7435dea-50cb-4848-9764-a4b11727f6d6/885dbcde-44db-4d39-8228-8758ab1b4f28-master.m3u8https://video.igem.org/videos/embed/qB98eHXufpnewca5A15X8C141582025-10-05T09:39:25.389ZYES2025 TeamsNOhttps://video.igem.org/w/rKRrEhxXz8bEmaakpPoL9xhttps://video.igem.org/lazy-static/thumbnails/3d702efd-e7ef-42f4-9fd5-cdf2163659d2.jpgREC-CHENNAI: 22 (2025)3-second video clip of team member No 22 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/d093eb28-1ce1-4db1-b4ad-ad7c4253991f/b36303a0-7261-4517-8361-8d031cb592ec-master.m3u8https://video.igem.org/videos/embed/rKRrEhxXz8bEmaakpPoL9x201022025-10-05T11:03:01.442ZYES2025 TeamsNOhttps://video.igem.org/w/sARawE3j7TPMVw8aW1w44ohttps://video.igem.org/lazy-static/thumbnails/6df661b9-4055-4951-84b5-a13a4eec80dc.jpgMcMaster-Canada: Molecular Dynamics Simulation of CXCL9 110 nt DNA Aptaprimer-Protein (2025)McMaster-Canada (2025) molecular dynamics simulation of our 110nt aptaprimer and CXCL9 protein-DNA complex. Trajectory file is post-processed by removing periodic boundary artifacts and spatially aligned. Simulation done using VMD. Created by Andrew Lian. For more information, see our wiki at: https://2025.igem.wiki/mcmaster-canada/https://static.igem.org/peertube/streaming-playlists/hls/d76b3120-d27f-440a-bc42-9ff6f4108660/d1659f2b-0c0b-4920-80e7-9cae9f3c7ea5-master.m3u8https://video.igem.org/videos/embed/sARawE3j7TPMVw8aW1w44o67042025-10-05T09:58:57.078ZYES2025 TeamsNOhttps://video.igem.org/w/pWv54qMh3cqMrmiC24NjTthttps://video.igem.org/lazy-static/thumbnails/b4fb6344-c8ad-425a-b9e1-538bf6ca215f.jpgREC-CHENNAI: rotation TRPV1 (2025)rotation of TRPV1 for molecular docking wiki link: https://2025.igem.wiki/rec-chennai/molecular-dockinghttps://static.igem.org/peertube/streaming-playlists/hls/c1de448c-d81b-42c5-ab4c-0e98e0e75db1/a971478f-5467-4d69-bca4-3dd4bed20d2f-master.m3u8https://video.igem.org/videos/embed/pWv54qMh3cqMrmiC24NjTt80162025-10-05T11:03:12.883ZYES2025 TeamsNOhttps://video.igem.org/w/wnBfK3s9aPRgrWB9XGgFPshttps://video.igem.org/lazy-static/thumbnails/854e6b16-f38e-4074-bab2-935dec258301.jpgREC-CHENNAI: rotation TMC4 (2025)rotation of TMC4 for molecular docking wiki link: https://2025.igem.wiki/rec-chennai/molecular-dockinghttps://static.igem.org/peertube/streaming-playlists/hls/f5f6814f-f89d-4c9c-975c-59e5042b78f4/07ec6cd4-92f9-4b77-8939-bfcc088c1aaa-master.m3u8https://video.igem.org/videos/embed/wnBfK3s9aPRgrWB9XGgFPs80222025-10-05T11:03:18.068ZYES2025 TeamsNOhttps://video.igem.org/w/wypjHvxneuHqN8HhcFSjUZhttps://video.igem.org/lazy-static/thumbnails/1551d5bd-443b-4866-a220-c868bf43bc0f.jpgREC-CHENNAI: rotation ENaC (2025)rotation of ENaC for dry lab molecular docking wiki link: https://2025.igem.wiki/rec-chennai/molecular-dockinghttps://static.igem.org/peertube/streaming-playlists/hls/f7785563-d2d0-4c11-8910-37119534ed29/563f7ddf-aff5-4a8d-ae02-04590125d9aa-master.m3u8https://video.igem.org/videos/embed/wypjHvxneuHqN8HhcFSjUZ80172025-10-05T11:03:25.224ZYES2025 TeamsNOhttps://video.igem.org/w/pRwz2TdQWabn3rNRrkPnvthttps://video.igem.org/lazy-static/thumbnails/c62337f5-813c-4019-b0de-ed1d34ad15f0.jpgMSP-Maastricht: Educational Series - Introduction Section (2025) [English]Vector Journal: Tips and tricks on how to write a good introduction for a scientific article. Here is the first video about how to write a good article for the Vector journal. Stay tuned for the upcoming videos about how to write the different sections of a scientific paper! MSP-Maastricht 2025 wiki: https://2025.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/c12c7919-be96-42ae-9191-04fac17f1309/e13661cb-b52d-4c5e-8e39-5d6baa9ae5a8-master.m3u8https://video.igem.org/videos/embed/pRwz2TdQWabn3rNRrkPnvt44062025-10-05T09:53:53.317ZYES2025 TeamsNOhttps://video.igem.org/w/tfAVTjpibD1nZaqjpofjeehttps://video.igem.org/lazy-static/thumbnails/80133092-276a-4165-a56c-31c64e7d4e21.jpgMSP-Maastricht: Educational Series - Method Section (2025) [English]Vector Journal: Tips and tricks on how to write a good methods section for a scientific article. Stay tuned for the upcoming videos about how to write the different sections of a scientific paper! MSP-Maastricht 2025 wiki: https://2025.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/dcb0aeb1-21e0-43f8-8be1-0088183691f7/8dab3dc2-e36e-4691-a2bc-61f89f08dd73-master.m3u8https://video.igem.org/videos/embed/tfAVTjpibD1nZaqjpofjee49012025-10-05T10:01:39.993ZYES2025 TeamsNOhttps://video.igem.org/w/qYEXFz9dKQU5UFYNazE7b1https://video.igem.org/lazy-static/thumbnails/ce7586fb-d95e-44fc-bf3f-de96a3b86174.jpgMSP-Maastricht: Educational Series - Result Section (2025) [English]Vector Journal: Tips and tricks on how to write a good result section for a scientific article. Stay tuned for the upcoming videos about how to write the different sections of a scientific paper! MSP-Maastricht 2025 wiki: https://2025.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/ca44fd2a-f7e1-4d0d-8235-702b062daf3c/2ddf6a04-88f8-4858-a397-eeb14b212ad2-master.m3u8https://video.igem.org/videos/embed/qYEXFz9dKQU5UFYNazE7b147052025-10-05T10:03:28.315ZYES2025 TeamsNOhttps://video.igem.org/w/5JWpWbU6wF3m245EHTbEFihttps://video.igem.org/lazy-static/thumbnails/0a039585-7d13-4d16-b65f-9259f4a81ce3.jpgMcGill: Bonds Shake (2025)Bonds shake, showing strength of Cohera! https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/26635372-f875-417f-afd8-bb6727e5171f/66cce6e7-2668-4610-8f2a-22161d734242-master.m3u8https://video.igem.org/videos/embed/5JWpWbU6wF3m245EHTbEFi30142025-10-05T10:01:29.362ZadhesionmcgillcovalentcoheraYES2025 TeamsNOhttps://video.igem.org/w/sZVcvGW9skyuWvdpUfigEMhttps://video.igem.org/lazy-static/thumbnails/4c313b52-5fc0-477b-b9df-f618d7f01ca5.jpgMSP-Maastricht: Educational Series - Discussion Section (2025) [English]Vector Journal: Tips and tricks on how to write a good discussion section for a scientific article. Stay tuned for the upcoming videos about how to write the different sections of a scientific paper! MSP-Maastricht 2025 wiki: https://2025.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/daa3c8e7-6e5d-4b22-ac7e-4f98b4098cad/037c7a70-abf5-44bd-a1dc-7dc937ca2bbc-master.m3u8https://video.igem.org/videos/embed/sZVcvGW9skyuWvdpUfigEM39002025-10-05T10:21:20.343ZYES2025 TeamsNOhttps://video.igem.org/w/sjRaYs4DHvipE7kjNURBgohttps://video.igem.org/lazy-static/thumbnails/b1d2cada-c4ab-47c3-b9cc-6e561f102bb4.jpgMSP-Maastricht: Educational Series - Conclusion Section (2025) [English]Vector Journal: Tips and tricks on how to write a good conclusion section for a scientific article. Stay tuned for the upcoming videos about how to write the different sections of a scientific paper! MSP-Maastricht 2025 wiki: https://2025.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/d52f4bdb-2052-41b8-9566-aa5d77b14910/4d2f37cd-43c9-45c0-97eb-31cc90c69f2b-master.m3u8https://video.igem.org/videos/embed/sjRaYs4DHvipE7kjNURBgo32012025-10-05T10:23:46.600ZYES2025 TeamsNOhttps://video.igem.org/w/ubiRdDawp6Ex6AmZ4kp5S3https://video.igem.org/lazy-static/thumbnails/3fb70328-d0dc-4939-867e-b13aa01df5aa.jpgMSP-Maastricht: Educational Series - Reference Section (2025) [English]Vector Journal: Tips and tricks on how to properly reference in a a scientific article. This is the last of our videos explaining how to properly write a scientific article. MSP-Maastricht 2025 wiki: https://2025.igem.wiki/msp-maastricht/https://static.igem.org/peertube/streaming-playlists/hls/e43051db-de4f-4344-8d4b-4a5118f348ce/2907988e-21ad-45fe-9653-cf82fc67db90-master.m3u8https://video.igem.org/videos/embed/ubiRdDawp6Ex6AmZ4kp5S354032025-10-05T10:26:19.635ZYES2025 TeamsNOhttps://video.igem.org/w/9cpyDZVbWZ3qrwbHLPmuU5https://video.igem.org/lazy-static/thumbnails/4e5bb2b1-644e-49f7-b46b-a67cd149f519.jpgREC-CHENNAI: salt peptide (2025)video of salt peptide going into receptors wiki link : http://localhost:5173/rec-chennai/homehttps://static.igem.org/peertube/streaming-playlists/hls/4260cfdd-b640-427e-a138-17db9b3d958c/ab0ad16b-48c3-44c5-9a60-b357af759c0a-master.m3u8https://video.igem.org/videos/embed/9cpyDZVbWZ3qrwbHLPmuU53012025-10-05T11:03:34.965ZYES2025 TeamsNOhttps://video.igem.org/w/fVGLpG9rHgCnPwAEsbEFV7https://video.igem.org/lazy-static/thumbnails/75d3e563-3898-47e9-82a2-a7e13bb42103.jpgEPFL: drone flight test (2025)This video shows our drone's flight test. https://static.igem.org/peertube/streaming-playlists/hls/78df7bd9-2d9d-4afc-832c-bb98507bddd4/993a10ce-cc45-4d6a-93cd-93e94d63de7c-master.m3u8https://video.igem.org/videos/embed/fVGLpG9rHgCnPwAEsbEFV7390492025-10-05T10:04:33.181ZYES2025 TeamsNOhttps://video.igem.org/w/xuEqF44WNgh7QYsXPqtLMXhttps://video.igem.org/lazy-static/thumbnails/643b9960-bcbc-4862-86da-52a6bd12b302.jpgMIT-MAHE: Untreated P. capsici Zoospore Movement (2025)This video shows the movement of *P. capsici* zoospores under a microscope.https://static.igem.org/peertube/streaming-playlists/hls/ff0bcdf4-b420-4c88-9208-8a6baabe6971/614ab440-c26f-4341-baad-da9c032bfd72-master.m3u8https://video.igem.org/videos/embed/xuEqF44WNgh7QYsXPqtLMX37082025-10-05T10:21:40.882ZYES2025 TeamsNOhttps://video.igem.org/w/vqabKBnsQC3ixUr2Y3GsCohttps://video.igem.org/lazy-static/thumbnails/bb03a726-fd7b-495f-a0d4-a8aaebc742e0.jpgREC-CHENNAI: n1 (2025)2 second video of team Member No.1, for teams page. Wiki link : https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/ee388845-727c-45b4-8f6c-749445b44406/fed65618-5747-437b-a79c-5fee4c6a94e5-master.m3u8https://video.igem.org/videos/embed/vqabKBnsQC3ixUr2Y3GsCo2032025-10-05T11:03:38.925ZYES2025 TeamsNOhttps://video.igem.org/w/v1NNBVrNPAZNj9xoZ15KGDhttps://video.igem.org/lazy-static/thumbnails/c8cce940-101e-4964-9360-e6a95a7722c8.jpgEPFL: drone flight test #2 (2025)This video shows a second footage of the flight test. https://static.igem.org/peertube/streaming-playlists/hls/eaf5dd70-4f70-4d11-8acd-2261f7e78281/d47e6000-e9b6-4d0b-ab47-0fe962fe2d56-master.m3u8https://video.igem.org/videos/embed/v1NNBVrNPAZNj9xoZ15KGD290112025-10-05T09:55:33.882ZYES2025 TeamsNOhttps://video.igem.org/w/uJZWBZE2SMDjUghHvGsxnQhttps://video.igem.org/lazy-static/thumbnails/2784c416-77b6-42e2-aed4-5b0cfdc4fda9.jpgMcMaster-Canada: Episode 1: Beaming Biomarkers (2025) [English]The Inquirer studies an old book on biomarkers, then visits an Indigenous community scientist, an ICU doctor, and a transplant clinician, learning that trust in, speed, and early detection of biomarkers are essential. Inspired to find early signals of kidney rejection, she’s swept by the book into the human body to begin the search. (McMaster iGEM 2025 Wiki)(https://2025.igem.wiki/mcmaster-canada/)https://static.igem.org/peertube/streaming-playlists/hls/e8c0d424-8380-4648-b561-60f785a3c13e/9e5c5275-696f-4c7b-bcbe-432b7ee34ff3-master.m3u8https://video.igem.org/videos/embed/uJZWBZE2SMDjUghHvGsxnQ2040322025-10-05T09:40:12.326ZYES2025 TeamsNOhttps://video.igem.org/w/huT3bH2eR4GgVg6QBFMd7Nhttps://video.igem.org/lazy-static/thumbnails/ff70cd1f-9eb7-4858-a980-bf64619622ca.jpgREC-CHENNAI: n2 (2025)3-second video clip of team member No 2 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/859a7f48-6c2f-4ace-9c08-a8d5b5cee812/38e33e3e-af33-4476-8dc3-b81addf6e50a-master.m3u8https://video.igem.org/videos/embed/huT3bH2eR4GgVg6QBFMd7N2032025-10-05T11:03:42.988ZYES2025 TeamsNOhttps://video.igem.org/w/mwZTJe7Dj6vtC1qQhRBV9Zhttps://video.igem.org/lazy-static/thumbnails/f79f5144-e30a-4d3b-a0aa-58802c943af5.jpgREC-CHENNAI: 4 (2025)3-second video clip of team member No 4 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/a64ac370-0110-474f-baf8-2014ed8d5c05/24dd96af-69c1-4a2c-b7a8-77203627b4de-master.m3u8https://video.igem.org/videos/embed/mwZTJe7Dj6vtC1qQhRBV9Z10722025-10-05T11:03:46.836ZYES2025 TeamsNOhttps://video.igem.org/w/rAJa3qfCQ9miWFDfgBm7ZQhttps://video.igem.org/lazy-static/thumbnails/b0e0af14-a16c-44e7-a620-c6b992be6b70.jpgREC-CHENNAI: 5 (2025)3-second video clip of team member No 5 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/cf4dbbf2-9d9d-45be-9139-043e8c2237a2/10281bda-6ffc-4d7f-ad78-ac1fd486434e-master.m3u8https://video.igem.org/videos/embed/rAJa3qfCQ9miWFDfgBm7ZQ10892025-10-05T11:03:50.469ZYES2025 TeamsNOhttps://video.igem.org/w/uwyZJwmBirsgK3RcJoqmUThttps://video.igem.org/lazy-static/thumbnails/98e138c9-b88f-4667-8569-14a022fd43d2.jpgESSENTIAL KOREA: Overview (2025)ESSENTIAL KOREA: Overview (2025)https://static.igem.org/peertube/streaming-playlists/hls/e704879b-88d8-4dc7-8cfc-c1112ab3d56b/6192880c-8be0-4d78-b5fe-c8bfa073c2b5-master.m3u8https://video.igem.org/videos/embed/uwyZJwmBirsgK3RcJoqmUT8002025-10-05T09:53:55.052ZYES2025 TeamsNOhttps://video.igem.org/w/e3i4QCrKajnyTKzgbgaun7https://video.igem.org/lazy-static/thumbnails/e3c672d6-9873-4cbc-a5d5-0ee49856aa88.jpgREC-CHENNAI: 6 (2025)3-second video clip of team member No 6 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/6998ceba-12dd-4537-9619-97d71171d590/67167ef0-3507-4dee-a22a-d85a9f4009b5-master.m3u8https://video.igem.org/videos/embed/e3i4QCrKajnyTKzgbgaun720732025-10-05T11:04:47.944ZYES2025 TeamsNOhttps://video.igem.org/w/dJZ91SBXXEKyrdtets1v5Khttps://video.igem.org/lazy-static/thumbnails/75325508-83c0-4390-b741-960a335a636e.jpgREC-CHENNAI: 7 (2025)3-second video clip of team member No 7 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/672e1d6b-744d-4a56-a642-357e7da65467/0a2feba5-8823-49db-9741-359fee14da95-master.m3u8https://video.igem.org/videos/embed/dJZ91SBXXEKyrdtets1v5K201132025-10-05T11:04:52.345ZYES2025 TeamsNOhttps://video.igem.org/w/bgiFBAy86CLwhAzcXZ8B8Yhttps://video.igem.org/lazy-static/thumbnails/ca8b785d-3183-4e59-a6e0-d6c1abc76188.jpgREC-CHENNAI: 8 (2025)3-second video clip of team member No 8 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/531e70d0-9788-4d34-bd58-2f27ad4e8c02/d11ddd5a-5afe-4a28-949d-d362a39dfd27-master.m3u8https://video.igem.org/videos/embed/bgiFBAy86CLwhAzcXZ8B8Y2022025-10-05T11:04:55.736ZYES2025 TeamsNOhttps://video.igem.org/w/esorx1obS3VnkyNKKyYmjfhttps://video.igem.org/lazy-static/thumbnails/80dd407e-18e3-419d-b8ff-d776960c4f12.jpgREC-CHENNAI: 9 (2025)3-second video clip of team member No 9 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/6cf5f84b-1fd5-4653-9ea2-8c61afe64152/a6cf5137-24e9-4b59-bc6e-06f62331e228-master.m3u8https://video.igem.org/videos/embed/esorx1obS3VnkyNKKyYmjf2052025-10-05T11:04:56.103ZYES2025 TeamsNOhttps://video.igem.org/w/v1BexHPADM7BUz1uK4cG3vhttps://video.igem.org/lazy-static/thumbnails/225475e1-790b-46b5-9d35-8f549f312ef8.jpgREC-CHENNAI: 11 (2025)3-second video clip of team member No 11 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/eaeebc0e-8f07-4ab4-8a09-8d9e42c7daf9/7a151299-22da-4d8f-8719-ad38f0d600a7-master.m3u8https://video.igem.org/videos/embed/v1BexHPADM7BUz1uK4cG3v10852025-10-05T11:04:58.430ZYES2025 TeamsNOhttps://video.igem.org/w/q4tWN5kAuQXxzcx6xzqSmkhttps://video.igem.org/lazy-static/thumbnails/c0e7c49a-2a29-45fc-906d-354b28f7e344.jpgREC-CHENNAI: 12 (2025)3-second video clip of team member No 12 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/c2d7c7dc-1712-4692-93f1-1fd694cad493/9faf501e-fe0d-491e-ac19-91e09b50b4dd-master.m3u8https://video.igem.org/videos/embed/q4tWN5kAuQXxzcx6xzqSmk2022025-10-05T11:05:00.742ZYES2025 TeamsNOhttps://video.igem.org/w/wJf5YA3d2sUL3HDSArK9eohttps://video.igem.org/lazy-static/thumbnails/82ed878e-ec90-46c2-b5ba-8a61e8961481.jpgMIT-MAHE: Acetic Acid Treated P. capsici Zoospore Movement (2025)This video shows the movement of *P. capsici* zoospores treated with acetic acid.https://static.igem.org/peertube/streaming-playlists/hls/f8d8142d-2b4e-4964-af63-80fb9d62e0b0/687692d2-60a3-468f-81e4-65a67d4c3f40-master.m3u8https://video.igem.org/videos/embed/wJf5YA3d2sUL3HDSArK9eo31052025-10-05T10:23:59.270ZYES2025 TeamsNOhttps://video.igem.org/w/tMjqJrNLZ4A5yNyVNKZg2thttps://video.igem.org/lazy-static/thumbnails/317e5215-3794-4c41-9b83-e041eb6ed8fe.jpgMcMaster-Canada: Episode 2: The Key is in the Kidney (2025) [English]The Inquirer sails the River Lymphes with the Keeper of the Immune System, ruling out common or non-specific signals like glucose and KIM-1 that don’t predict rejection. She discovers NGAL and CXCL9 as early, sensitive biomarkers of kidney transplant rejection and returns to the real world to build a device before the “kidney volcano” erupts.https://static.igem.org/peertube/streaming-playlists/hls/e0fa91b3-b9d2-419d-ab5d-5717c7b54609/433944b8-24bc-4082-8c7b-c3fce935a1ff-master.m3u8https://video.igem.org/videos/embed/tMjqJrNLZ4A5yNyVNKZg2t213092025-10-05T09:52:58.326ZYES2025 TeamsNOhttps://video.igem.org/w/29Yy1oQPBBUDhypTFvnj9rhttps://video.igem.org/lazy-static/thumbnails/f8b38523-84c6-4cdd-a5f1-37532aec1783.jpgMIT-MAHE: Nanoparticle Treated P. capsici Zoospore Movement (2025)This video shows the movement of *P. capsici* zoospores treated with chitosan nanoparticles.https://static.igem.org/peertube/streaming-playlists/hls/0959f0ac-6329-407e-9e23-280031538e29/d57ca0d7-413d-4313-8538-37b13a3e1c36-master.m3u8https://video.igem.org/videos/embed/29Yy1oQPBBUDhypTFvnj9r32062025-10-05T10:26:30.329ZYES2025 TeamsNOhttps://video.igem.org/w/kPSNCpLSWdoQj6t1SkTpwjhttps://video.igem.org/lazy-static/thumbnails/83e1d7ce-4a6a-493a-8303-1cf102b1f822.jpgMcMaster-Canada: Episode 3: The Rooms We've Only Dreamed Of (2025) [English]The Inquirer builds an aptamer-based urine test for NGAL and CXCL9, but customer feedback shows the interface is confusing and unusable. She consults stakeholders, pivots to a clear and affordable colorimetric design, secures support, and launches a tool that helps catch rejection early and quiets the “volcano.”https://static.igem.org/peertube/streaming-playlists/hls/a08ce698-58dd-48d1-8086-f97777084102/4480a6fe-bdb3-4217-b380-75b1ebc92660-master.m3u8https://video.igem.org/videos/embed/kPSNCpLSWdoQj6t1SkTpwj2420162025-10-05T10:01:10.385ZYES2025 TeamsNOhttps://video.igem.org/w/4wb2ArzRQkBVJo8r76wB8Nhttps://video.igem.org/lazy-static/thumbnails/81b8f2d9-0ec2-4ed2-95e4-d92e9cf8078a.jpgMIT-MAHE: Nanoformulation Treated P. capsici Zoospore Movement (2025)This video shows the movement of *P. capsici* zoospores treated with a nanoformulation consisting of a chitosan nanoparticles and siRNA.https://static.igem.org/peertube/streaming-playlists/hls/1c81e8a2-c6f4-4ffe-8e7b-66d6a50b5d30/f97eebc8-5ec9-47c7-981c-10fc7f861278-master.m3u8https://video.igem.org/videos/embed/4wb2ArzRQkBVJo8r76wB8N34062025-10-05T10:32:44.216ZYES2025 TeamsNOhttps://video.igem.org/w/c2jEWbPieXqRQD7eGWK1Ryhttps://video.igem.org/lazy-static/thumbnails/4d1c7cd3-8f32-453b-bc1f-c8925757dff2.jpgREC-CHENNAI: effects (2025)causes of excess salt intake video for home page wiki link : https://2025.igem.wiki/rec-chennai/https://static.igem.org/peertube/streaming-playlists/hls/5943c68e-b663-45bc-acab-e797dbce7b92/9f907051-9f36-466d-8869-38ec28f62ddc-master.m3u8https://video.igem.org/videos/embed/c2jEWbPieXqRQD7eGWK1Ry8032025-10-05T11:05:20.145ZYES2025 TeamsNOhttps://video.igem.org/w/xnjv5eitmXRXwFgkFGVAtRhttps://video.igem.org/lazy-static/thumbnails/44af2915-95f3-4adc-ba9e-b1a3efc14e24.jpgMIT-MAHE: Movement of P. capsici Zoospores Treated with siRNA 1 (2025)This video shows the movement of *P. capsici* zoospores treated with one of the siRNAs designed by our team.https://static.igem.org/peertube/streaming-playlists/hls/fe0551c6-765d-4450-8563-08c3d587807f/e5388331-5953-44d1-ba17-51fa49be1e6c-master.m3u8https://video.igem.org/videos/embed/xnjv5eitmXRXwFgkFGVAtR20072025-10-05T10:35:59.197ZYES2025 TeamsNOhttps://video.igem.org/w/fDkEnXzz8xNs9gSvCnjWxPhttps://video.igem.org/lazy-static/thumbnails/0748e458-8b46-40e8-a77f-91c536e6e05a.jpgMIT-MAHE: Movement of P. capsici Zoospores Treated with siRNA 2 (2025)This video shows the movement of *P. capsici* zoospores treated with one of the siRNAs designed by our team.https://static.igem.org/peertube/streaming-playlists/hls/769693e3-06a3-4085-bc0a-b1b92274e9ad/a2197003-fac9-4617-aca0-67998d96782b-master.m3u8https://video.igem.org/videos/embed/fDkEnXzz8xNs9gSvCnjWxP20062025-10-05T10:44:13.601ZYES2025 TeamsNOhttps://video.igem.org/w/c5ckTPHMthBLCUfAmn7GM3https://video.igem.org/lazy-static/thumbnails/2bef999b-836f-4df4-ada3-ac8cc2407655.jpgREC-CHENNAI: 3 (2025)3-second video clip of team member No 3 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/59aa7d9e-f36b-4f92-9fda-d1214b06e314/e868426a-dad7-468f-8a8d-a85e06330984-master.m3u8https://video.igem.org/videos/embed/c5ckTPHMthBLCUfAmn7GM32052025-10-05T11:03:52.914ZYES2025 TeamsNOhttps://video.igem.org/w/oRHD2LFjnLwz96errneKHShttps://video.igem.org/lazy-static/thumbnails/21196a71-6e79-4328-a952-033a5b49d425.jpgREC-CHENNAI: 10 (2025)3-second video clip of team member No 10 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/b91a27e6-7e36-458b-8170-77d1c1126f40/ad0e0995-8694-43de-9095-561294c0a3b3-master.m3u8https://video.igem.org/videos/embed/oRHD2LFjnLwz96errneKHS20902025-10-05T11:04:40.613ZYES2025 TeamsNOhttps://video.igem.org/w/cnP88iWgrEyFdhuuRGVibshttps://video.igem.org/lazy-static/thumbnails/027eb32d-56cb-4eab-a1ad-ea21fc60b869.jpgREC-CHENNAI: 13 (2025)3-second video clip of team member No 13 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/5c202f57-4a1b-4976-a0c5-aea91641532a/5a3fe3fd-1616-4d0a-8cc3-16775a1abb62-master.m3u8https://video.igem.org/videos/embed/cnP88iWgrEyFdhuuRGVibs20702025-10-05T11:04:43.533ZYES2025 TeamsNOhttps://video.igem.org/w/1K1283UHMtAJtvBY3Ns6b4https://video.igem.org/lazy-static/thumbnails/0d3bdd5e-0120-4bd1-98a6-6586d7f8ef3a.jpgREC-CHENNAI: 14 (2025)3-second video clip of team member No 14 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/0600fe78-8c87-42eb-aacc-58c3eae640ab/4cf73793-ffde-4d1e-9a19-b1261f13729a-master.m3u8https://video.igem.org/videos/embed/1K1283UHMtAJtvBY3Ns6b410882025-10-05T11:04:44.969ZYES2025 TeamsNOhttps://video.igem.org/w/nQaw78qykfzekFbuMNkrhMhttps://video.igem.org/lazy-static/thumbnails/7cb81d8e-f4e8-4d8e-b00b-b9b394e60615.jpgREC-CHENNAI: 15 (2025)3-second video clip of team member No 15 for Teams page. Wiki link: https://2025.igem.wiki/rec-chennai/teamhttps://static.igem.org/peertube/streaming-playlists/hls/b0c97aa9-a031-4ea2-9b50-6772a99c0c49/b23f211e-ba21-4974-8bee-3521174503ff-master.m3u8https://video.igem.org/videos/embed/nQaw78qykfzekFbuMNkrhM301142025-10-05T11:04:49.473ZYES2025 TeamsNOhttps://video.igem.org/w/wU9PShXm8nhfjQyLVuvcizhttps://video.igem.org/lazy-static/thumbnails/970b7803-228e-4473-876b-74841b19a6a1.jpgUBC-Vancouver: without tool (2025)Pipetting without MSK tool.https://static.igem.org/peertube/streaming-playlists/hls/fa3a464d-8edd-471e-8b01-2f21a6c641ef/909156ba-9361-449d-b69c-4cb3629bd5af-master.m3u8https://video.igem.org/videos/embed/wU9PShXm8nhfjQyLVuvciz3002025-10-05T09:35:16.485ZYES2025 TeamsNOhttps://video.igem.org/w/gDE2vpD84h7nwVPGgwQ8vmhttps://video.igem.org/lazy-static/thumbnails/4614c1ee-d76c-432d-a7be-959efb42ce60.jpgUBC-Vancouver: withtool (2025)Pipetting with MSK tool.https://static.igem.org/peertube/streaming-playlists/hls/7ebb08a2-d541-4fd3-a5c6-30aca73922e2/d126f07c-e4ce-4716-ae0c-f0ae37a2758e-master.m3u8https://video.igem.org/videos/embed/gDE2vpD84h7nwVPGgwQ8vm3002025-10-05T09:45:25.379ZYES2025 TeamsNOhttps://video.igem.org/w/7QhAaFpHzPGUq1hBiRogozhttps://video.igem.org/lazy-static/thumbnails/0294cea4-d0ac-402d-a671-797a4bccc889.jpgMcMaster-Canada: Molecular Dynamics Simulation of CXCL9 104 nt DNA Aptaprimer-Protein (2025)McMaster-Canada (2025) molecular dynamics simulation of our 104 nt aptaprimer and CXCL9 protein-DNA complex. Trajectory file is post-processed by removing periodic boundary artifacts and spatially aligned. Simulation done using VMD. Created by Andrew Lian. For more information, see our wiki at: https://2025.igem.wiki/mcmaster-canada/https://static.igem.org/peertube/streaming-playlists/hls/3754c19d-4af5-4c25-95e0-4bc18c9b2c19/ef38e2ce-7d40-46d2-bc45-17deab4c2354-master.m3u8https://video.igem.org/videos/embed/7QhAaFpHzPGUq1hBiRogoz67052025-10-05T10:11:42.194ZYES2025 TeamsNOhttps://video.igem.org/w/2cBBUto1WTRKqEnQCBDwLthttps://video.igem.org/lazy-static/thumbnails/94200975-ba9e-4aa6-b3d3-ef966cd19783.jpgUAlberta: JulyGEM (2025)A compilation video made by team members to showcase our work at JulyGEM 2025 in Calgary. Wiki link: https://2025.igem.wiki/ualberta/https://static.igem.org/peertube/streaming-playlists/hls/09b84569-e827-4cbc-8232-23e67ee49243/b84dbd82-70a5-4069-8d9d-342ada28c56c-master.m3u8https://video.igem.org/videos/embed/2cBBUto1WTRKqEnQCBDwLt46032025-10-05T10:23:34.509ZYES2025 TeamsNOhttps://video.igem.org/w/up4cw9JAt4sNQjM4BTJkpUhttps://video.igem.org/lazy-static/thumbnails/0efbf146-a9c2-4e2e-96f1-bf0664985318.jpgHeidelberg: WetlabSeries S1E5 Bacterial transformation (2025) [English]In this video the process and theory of bacterial transformation are shown and explained. It is part of our digital learning platform on our Wiki. https://2025.igem.wiki/heidelberg/learning-platformhttps://static.igem.org/peertube/streaming-playlists/hls/e5f7f5dd-4c9e-41a6-9a8d-b7b2d62f8df6/89740d64-7eab-42e5-a74c-fbd43c951d7b-master.m3u8https://video.igem.org/videos/embed/up4cw9JAt4sNQjM4BTJkpU445532025-10-05T09:54:27.391Zwetlabseriesteam igem heidelbergphoenicsheidelbergYES2025 TeamsNOhttps://video.igem.org/w/f2GB2tgi5nKGB8Zj9BPTD8https://video.igem.org/lazy-static/thumbnails/27023c14-e0ba-49c8-80da-963f0da2de30.jpgDNHS-SanDiego-Ca: ASOmatic Hardware Demonstration (2025)Demonstration of our team's hardware tool, the ASOmatic. Visualized in Blender, the ASOmatic is a conceptual hardware design streamlines antisense oligonucleotide (ASO) development for knockdown of critical disease-implicated proteins. Credits: Vasanth Rajasekaran, Prakruti Bhatt, Risha Guha https://static.igem.org/peertube/streaming-playlists/hls/719cb542-5247-4c0d-b4dc-89f235988e1d/54aa918e-7755-48f5-a3f5-d9b81e2f91f9-master.m3u8https://video.igem.org/videos/embed/f2GB2tgi5nKGB8Zj9BPTD840132025-10-05T09:35:29.834ZhardwareYES2025 TeamsNOhttps://video.igem.org/w/fLxd7X7SbuU43BsSb4mszGhttps://video.igem.org/lazy-static/thumbnails/08f7ee63-9396-4ca8-8710-cbb74c1bb43d.jpgIITChicago: McHenry County Conservatory Meeting (2025) [English]Recorded meeting with a local bee conservatory regarding our projecthttps://static.igem.org/peertube/streaming-playlists/hls/7797e67b-cb14-4ed2-ac24-5d113280545a/86bef87b-bd8a-4b1b-9061-39f99048fe0c-master.m3u8https://video.igem.org/videos/embed/fLxd7X7SbuU43BsSb4mszG745062025-10-05T09:43:59.675ZYES2025 TeamsNOhttps://video.igem.org/w/7YdjgDnzpFb1vFEpnexghuhttps://video.igem.org/lazy-static/thumbnails/4a30224a-2165-42d4-a7af-836e8913a02b.jpgIITChicago: Interview with Beekeeper hobbyist (2025) [English]Recording of our interview with a local beekeeper hobbyist regarding our projecthttps://static.igem.org/peertube/streaming-playlists/hls/3870128d-18b9-4fff-82a2-cd7657e27b60/e8e45d5a-353c-4ea0-875e-3c2d1e38c61b-master.m3u8https://video.igem.org/videos/embed/7YdjgDnzpFb1vFEpnexghu502042025-10-05T09:52:34.124ZYES2025 TeamsNOhttps://video.igem.org/w/9JYmLBFshDvNFw5baJWtHhhttps://video.igem.org/lazy-static/thumbnails/71ca799e-1a1b-41c6-a5c4-92a5768daa99.jpgUOttawa: ARBOGuard Phage Delivery Animation (2025)Animation of ARBOGuard phage delivering components Animated by Jamie Wilsonhttps://static.igem.org/peertube/streaming-playlists/hls/46c9145b-e187-49d5-b026-381120fa6456/0d224275-da8f-4de6-8608-4118b621e643-master.m3u8https://video.igem.org/videos/embed/9JYmLBFshDvNFw5baJWtHh15062025-10-05T09:36:13.871ZYES2025 TeamsNOhttps://video.igem.org/w/x39rQD2gBxpTWPVCgwbH4whttps://video.igem.org/lazy-static/thumbnails/2f63ed27-9076-41d0-a513-655bdbf71818.jpgUOttawa: Mindfuel TFC Pitch (2025) [English]Video submission to Mindfuel TFC 2025 Scripting, filming, editing: Sarah Bukhari Animations: Jamie Wilsonhttps://static.igem.org/peertube/streaming-playlists/hls/fb57fd9f-cd2f-4458-ae16-1595ea7599e0/24773c2d-afea-4b48-bab5-26e829c93af9-master.m3u8https://video.igem.org/videos/embed/x39rQD2gBxpTWPVCgwbH4w101002025-10-05T09:53:40.179ZYES2025 TeamsNOhttps://video.igem.org/w/sQaX8CospmmN3LUYnY1ixyhttps://video.igem.org/lazy-static/thumbnails/ef9780fd-94e9-4033-95cf-54a362187af1.jpgHUST-China: Hardware-Exploded view (2025)https://2025.igem.wiki/hust-china/https://static.igem.org/peertube/streaming-playlists/hls/d9477038-59d9-4624-a621-998e600e802a/6e727fdf-c22f-4d9e-b864-1624d1d86c67-master.m3u8https://video.igem.org/videos/embed/sQaX8CospmmN3LUYnY1ixy230462025-10-05T09:51:47.516ZYES2025 TeamsNOhttps://video.igem.org/w/nB2YrNVLdf8GfF9isd2DUphttps://video.igem.org/lazy-static/thumbnails/6b51fb1a-d02c-43a9-a77d-839367a1b24b.jpgHUST-China: Hardware-Real shot of the motor (2025)https://2025.igem.wiki/hust-china/https://static.igem.org/peertube/streaming-playlists/hls/aef428ea-ae0b-4a2a-a147-9b099931247b/1d11ac8f-fbc1-4917-9a0a-0dc57a18e43e-master.m3u8https://video.igem.org/videos/embed/nB2YrNVLdf8GfF9isd2DUp160312025-10-06T14:00:09.323ZYES2025 TeamsNOhttps://video.igem.org/w/wv5TNyhCMa9dEGmjzZJ2mjhttps://video.igem.org/lazy-static/thumbnails/ce9ad925-3872-4125-a318-3d668abe1554.jpgThailand-RIS: Syn Bio Zoo Activity Education (2025) [Thai]Thailand-RIS: Syn Bio Zoo Activity Education (2025) [Thai]https://static.igem.org/peertube/streaming-playlists/hls/f701bea0-c2c0-4974-b8cb-0f6ee2bb74fe/43d9ee7e-303d-4665-a746-2cca529c05c3-master.m3u8https://video.igem.org/videos/embed/wv5TNyhCMa9dEGmjzZJ2mj44032025-10-05T10:26:16.445ZYES2025 TeamsNOhttps://video.igem.org/w/syW1vC5mM1rvbf8ihJHCBBhttps://video.igem.org/lazy-static/thumbnails/147dab19-48eb-452e-b4e4-53e84aa0213d.jpgHUST-China: Hardware-Real shot of the motor (2025)https://2025.igem.wiki/hust-china/https://static.igem.org/peertube/streaming-playlists/hls/d726b09d-dc4f-4cc2-9a58-fd5a2db111e9/0e46d66a-0910-47da-8aba-3035ea77a628-master.m3u8https://video.igem.org/videos/embed/syW1vC5mM1rvbf8ihJHCBB5042025-10-05T10:01:46.602ZYES2025 TeamsNOhttps://video.igem.org/w/pnn66Q6cJr772PBpzwn9idhttps://video.igem.org/lazy-static/thumbnails/278d2700-fcda-4b93-a2b6-af76b88afda8.jpgThailand-RIS: Pipette Activity Education (2025)Thailand-RIS: Pipette Activity Education (2025)https://static.igem.org/peertube/streaming-playlists/hls/bd3dcde3-9cbf-43e8-a7ea-c8f7698ac40e/551d3e03-dda5-4cf2-9abb-a3989c4074d4-master.m3u8https://video.igem.org/videos/embed/pnn66Q6cJr772PBpzwn9id4002025-10-05T10:26:38.944ZYES2025 TeamsNOhttps://video.igem.org/w/jE65XwsPssSFk48JLmuxYShttps://video.igem.org/lazy-static/thumbnails/944cd5e8-dfb8-463b-9d14-fc478f4f9e1e.jpgLambert-GA: RPA Overview Markdown Animation (2025) [English]*Animation of the recombinase polymerase amplification process.* Made by Amy Jing Specific page to be used on: [RPA](https://2025.igem.wiki/lambert-ga/diagnostics-rpa/) Wiki to be used on: [Lambert-GA 2025](https://2025.igem.wiki/lambert-ga/)https://static.igem.org/peertube/streaming-playlists/hls/9715e4a6-f8f4-4b8b-b512-af5f3e080a5e/7c8e1600-d7e7-421b-9fc2-8c92ce070855-master.m3u8https://video.igem.org/videos/embed/jE65XwsPssSFk48JLmuxYS21062025-10-05T09:52:05.817ZYES2025 TeamsNOhttps://video.igem.org/w/2bxcfcaGF9F65Hz7tBDATWhttps://video.igem.org/lazy-static/thumbnails/7214528a-83d8-4e98-bb3e-ae52a79ed33a.jpgUTokyo: Logo (2025)We created this animation to make our HOME page in our wiki (https://2025.igem.wiki/utokyo/). https://static.igem.org/peertube/streaming-playlists/hls/0991ccde-5c49-4d6e-aa41-87b7d1078064/541083c0-e30d-45ef-a560-410c8c41e0ce-master.m3u8https://video.igem.org/videos/embed/2bxcfcaGF9F65Hz7tBDATW3032025-10-05T09:40:12.732ZYES2025 TeamsNOhttps://video.igem.org/w/hHYDz1USkfsLn3S8gDwjY9https://video.igem.org/lazy-static/thumbnails/52274fa8-dc38-4e7f-a623-481be8a702c5.jpgUTokyo: miRNA-switch-PE (2025)We created this animation to make our HOME page in our wiki (https://2025.igem.wiki/utokyo/), to explain the mechanism of our design. https://static.igem.org/peertube/streaming-playlists/hls/876e9fa0-896d-4baf-853e-017eff778e60/9b1909d0-519c-44fd-987f-44032d5ff55b-master.m3u8https://video.igem.org/videos/embed/hHYDz1USkfsLn3S8gDwjY99012025-10-05T09:52:10.201ZYES2025 TeamsNOhttps://video.igem.org/w/535MDRYXoLJcwmCU5y9avqhttps://video.igem.org/lazy-static/thumbnails/2eb7bf58-777d-407a-8702-b5fe4747962a.jpgUTokyo: PENgUIN-writing (2025)We created this animation to make our HOME page in our wiki to explain the mechanism of our design(https://2025.igem.wiki/utokyo/). https://static.igem.org/peertube/streaming-playlists/hls/20aefe0a-5d7d-451a-9f3b-bd3bc2f741ae/2be17d58-94c3-40ce-b937-2f500c35898a-master.m3u8https://video.igem.org/videos/embed/535MDRYXoLJcwmCU5y9avq4002025-10-05T09:54:33.384ZYES2025 TeamsNOhttps://video.igem.org/w/jmwVWTJnvhh8s6HdMNAbRUhttps://video.igem.org/lazy-static/thumbnails/1861e494-c6e3-41a6-9657-85354b3a8483.jpgBarcelona-UB: lab protocols (2025)Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/94a26ec1-580b-473b-bc53-a359ba234c86/7b6d93cc-44c7-47c1-b82c-735f012be478-master.m3u8https://video.igem.org/videos/embed/jmwVWTJnvhh8s6HdMNAbRU50812025-10-05T10:28:54.586ZYES2025 TeamsNOhttps://video.igem.org/w/mE99Sxj4ZnxFcjzBCm8dKShttps://video.igem.org/lazy-static/thumbnails/25ffa49d-aeb3-4c8d-9f89-007fbaf92d56.jpgBarcelona-UB: lab notebook (2025)Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/a74a0f96-ecb5-438c-8511-95fedaabd7b8/12417e92-2b5c-4ba9-9308-b115f3acca23-master.m3u8https://video.igem.org/videos/embed/mE99Sxj4ZnxFcjzBCm8dKS50802025-10-05T10:32:47.485ZYES2025 TeamsNOhttps://video.igem.org/w/wctEv5cdBAGeU1bx32RakDhttps://video.igem.org/lazy-static/thumbnails/7c50b5b1-ee3a-431e-9ef1-00e7c0d1acee.jpgCSMU-Taiwan: Predicted Structure of Risankizumab-Derived scFv (AlphaFold2 Model) (2025)This video illustrates the AlphaFold2-predicted 3D structure of a single-chain variable fragment (scFv) engineered from the clinically used anti-IL-23 monoclonal antibody Risankizumab. The VH and VL domains were connected via a flexible (G₄S)₃ linker to mimic the natural pairing observed in the full-length antibody while enabling single-chain expression.https://static.igem.org/peertube/streaming-playlists/hls/f48c63c3-748e-4dcf-8465-da3a55229b6f/31a2945e-4957-4dd5-b087-ab0aaa0a19dd-master.m3u8https://video.igem.org/videos/embed/wctEv5cdBAGeU1bx32RakD30262025-10-05T10:01:56.905ZYES2025 TeamsNOhttps://video.igem.org/w/pVmhh9LrxXruySGPeHbrfqhttps://video.igem.org/lazy-static/thumbnails/913cd242-0fae-4e71-a7ac-85eb3f669122.jpgCSMU-Taiwan: Predicted Structure of Ustekinumab-Derived scFv (AlphaFold2 Model) (2025)This video showcases the AlphaFold2-predicted 3D structure of a single-chain variable fragment (scFv) derived from the clinically approved anti-IL-12/23 monoclonal antibody Ustekinumab. The VH and VL domains of Ustekinumab were connected via a flexible (G₄S)₃ linker to reconstruct the antigen-binding region in a compact single-chain format.https://static.igem.org/peertube/streaming-playlists/hls/c1b51b7e-13da-4011-a37e-5f3cd984c5c8/ede84314-8ab7-4799-817f-5f0024059799-master.m3u8https://video.igem.org/videos/embed/pVmhh9LrxXruySGPeHbrfq30202025-10-05T10:03:48.326ZYES2025 TeamsNOhttps://video.igem.org/w/bF3eymtThrQxuwpBT3yx8Phttps://video.igem.org/lazy-static/thumbnails/66faae5c-e99d-48b7-892a-770a1776741e.jpgTianjin: education (2025) [Chinese]Tianjin: education (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/566ec52d-d45a-4f94-b780-09b0a659d561/a8712087-b3a6-4cf1-b09b-1df2613cd1ad-master.m3u8https://video.igem.org/videos/embed/bF3eymtThrQxuwpBT3yx8P150132025-10-05T09:41:02.066ZYES2025 TeamsNOhttps://video.igem.org/w/ehJqTiu5DdCEm4YWkoUQbShttps://video.igem.org/lazy-static/thumbnails/852774ba-d02e-493a-9e8d-e19725503630.jpgCSMU-Taiwan: Docking of Anti-IL-23 scFv Prototype #1 with IL-23 p19 Subunit (2025)This video presents the molecular docking between our Anti-IL-23 scFv Prototype #1 and the IL-23 p19 subunit, a key component responsible for IL-23–mediated inflammatory signaling. Using ClusPro docking analysis, we visualized how the prototype scFv binds to p19 through complementary paratope–epitope interactions. These results provide structural insights into the potential neutralizing mechanism of our scFv prototype against IL-23.https://static.igem.org/peertube/streaming-playlists/hls/6b9cd9c9-3b4e-47c8-a4c4-f43a7626c416/deb237dc-7332-4c01-8548-8068f3f34ee8-master.m3u8https://video.igem.org/videos/embed/ehJqTiu5DdCEm4YWkoUQbS2092025-10-05T10:22:08.193ZYES2025 TeamsNOhttps://video.igem.org/w/8nbxiUX1SJ5er45VdEB1cJhttps://video.igem.org/lazy-static/thumbnails/9462c619-3014-4d96-ac48-0e92884b3d82.jpgHK-Joint-School: aptamer_acephate (2025)HK-Joint-School: aptamer_acephate (2025)https://static.igem.org/peertube/streaming-playlists/hls/3ba515ce-2bb2-483e-af6b-2b7a2ec62040/b6145e09-90c0-4d1f-b2e8-08b051ad31d9-master.m3u8https://video.igem.org/videos/embed/8nbxiUX1SJ5er45VdEB1cJ20002025-10-05T10:30:39.175ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/kW3BzxM8EYUXKD6WUaxG4phttps://video.igem.org/lazy-static/thumbnails/e615e693-cb44-4e85-a132-c5866f5035c0.jpgHK-Joint-School: aptamer_acetamiprid (2025)HK-Joint-School: aptamer_acetamiprid (2025)https://static.igem.org/peertube/streaming-playlists/hls/a16968a0-688d-451e-90fa-5508006b584d/0d0e2265-d2b6-4aec-88c8-51ef8c2d9693-master.m3u8https://video.igem.org/videos/embed/kW3BzxM8EYUXKD6WUaxG4p20002025-10-05T10:35:55.730ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/bU7eTWqpCqsfNQPwHk2oe6https://video.igem.org/lazy-static/thumbnails/086d7296-995b-42c1-ab8f-9925c44f04b7.jpgHK-Joint-School: aptamer_chlorpyrifos (2025)HK-Joint-School: aptamer_chlorpyrifos (2025)https://static.igem.org/peertube/streaming-playlists/hls/5841e86d-2fef-41a6-8e22-7fce76513a07/9225dfee-cda2-4081-9047-1227f8b748c7-master.m3u8https://video.igem.org/videos/embed/bU7eTWqpCqsfNQPwHk2oe620002025-10-05T10:42:21.070ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/7EwGS7RhMR4F62WSt8za6yhttps://video.igem.org/lazy-static/thumbnails/abc619a0-bbf1-4175-9f47-e34d005892c8.jpgHK-Joint-School: aptamer_glyphosateX (2025)HK-Joint-School: aptamer_glyphosateX (2025)https://static.igem.org/peertube/streaming-playlists/hls/35f8047f-b037-455c-98f4-7507a519b07e/51d9e762-4561-47c8-bc2e-c25425156722-master.m3u8https://video.igem.org/videos/embed/7EwGS7RhMR4F62WSt8za6y20002025-10-05T10:45:28.143ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/stRbh2AZ9PywqCrgj7XD18https://video.igem.org/lazy-static/thumbnails/3df9a54b-2e71-4dd6-ac9f-2e0f1fbaf8d9.jpgHK-Joint-School: aptamer_glyphosateY (2025)HK-Joint-School: aptamer_glyphosateY (2025)https://static.igem.org/peertube/streaming-playlists/hls/d670fe53-9104-4cef-9f3a-b57f88b7d8b3/1003f4fe-1332-4d5e-bd38-2e4773720d75-master.m3u8https://video.igem.org/videos/embed/stRbh2AZ9PywqCrgj7XD1820002025-10-05T10:46:34.271ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/ajVsJc2sG1osnvqgWs6NXMhttps://video.igem.org/lazy-static/thumbnails/f368439e-e167-4e16-a223-8fd352c88d1e.jpgHK-Joint-School: aptamer_malathionY (2025)HK-Joint-School: aptamer_malathionY (2025)https://static.igem.org/peertube/streaming-playlists/hls/4b86950b-0353-48e9-9f25-ddab0d43c003/fd9dc910-872b-4ac1-98d0-cb4a15e7d3bb-master.m3u8https://video.igem.org/videos/embed/ajVsJc2sG1osnvqgWs6NXM20002025-10-05T10:53:26.272ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/fYifG4qXcVs6c4vnZCc3iYhttps://video.igem.org/lazy-static/thumbnails/4d9245fb-054f-4aa8-be06-781dbe66de76.jpgHK-Joint-School: complex_25_glyphosateY (2025)HK-Joint-School: complex_25_glyphosateY (2025)https://static.igem.org/peertube/streaming-playlists/hls/793c399e-9572-4b9f-8b13-f4e38644edb2/a72c6bfb-13db-456a-b035-c9559495f20b-master.m3u8https://video.igem.org/videos/embed/fYifG4qXcVs6c4vnZCc3iY200242025-10-05T10:55:53.704ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/oaT2xgeXBgzpyB9tN8FmVjhttps://video.igem.org/lazy-static/thumbnails/6d872ac0-e1c4-46bb-a633-23613e77caa8.jpgECUST-China: software (2025)ECUST-China: software (2025)https://static.igem.org/peertube/streaming-playlists/hls/b38a30cf-b060-4435-9452-390f8aa020ec/4d44783b-06c3-471a-88a0-170e261ca2db-master.m3u8https://video.igem.org/videos/embed/oaT2xgeXBgzpyB9tN8FmVj101082025-10-05T10:24:22.007ZYES2025 TeamsNOhttps://video.igem.org/w/kFNFVvax4cxMmvwjNjyXJHhttps://video.igem.org/lazy-static/thumbnails/3e552c7a-638a-4167-999a-4a2cf5b95ba0.jpgHK-Joint-School: complex_25_malathionY (2025)HK-Joint-School: complex_25_malathionY (2025)https://static.igem.org/peertube/streaming-playlists/hls/9f6c6a0d-7c31-43fd-806a-3521d1f1dbc9/d257ea16-cca8-4862-828f-aa7355de63af-master.m3u8https://video.igem.org/videos/embed/kFNFVvax4cxMmvwjNjyXJH20042025-10-05T10:56:53.414ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/9JVgL2YfsjSQvGeDSvtzWvhttps://video.igem.org/lazy-static/thumbnails/b4f84af6-9f22-4171-acd5-b01135e39b37.jpgHK-Joint-School: complex_25_acetamiprid (2025)HK-Joint-School: complex_25_acetamiprid (2025)https://static.igem.org/peertube/streaming-playlists/hls/46c72d6f-31b7-48ee-9fee-c5ace9abce05/e3b6d216-f088-43be-930d-cd19b6c33452-master.m3u8https://video.igem.org/videos/embed/9JVgL2YfsjSQvGeDSvtzWv20032025-10-05T10:59:34.730ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/dUAYtE8Bd33j2Qz2a9scMuhttps://video.igem.org/lazy-static/thumbnails/dbe05c2a-750a-430b-9b9a-953cd060c91c.jpgBarcelona-UB: wiki parts intro off-off (2025)Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/6885e4ae-cc8a-4e50-a5d9-1b337718d0ca/cfc47893-61d8-4c04-8c75-4051a14583b8-master.m3u8https://video.igem.org/videos/embed/dUAYtE8Bd33j2Qz2a9scMu41010162025-10-05T10:42:56.693ZYES2025 TeamsNOhttps://video.igem.org/w/xyAjD3tfoZybQXuQDmfA6Xhttps://video.igem.org/lazy-static/thumbnails/7d04d3b0-9a5b-498c-a642-8e5ddca2008f.jpgECUST-China: software 2 (2025)ECUST-China: software 2 (2025)https://static.igem.org/peertube/streaming-playlists/hls/ff984019-5cbb-4a3b-93a0-c7ca40ffb4b1/56fe7c33-8f23-4f80-9bde-447a2c0b0564-master.m3u8https://video.igem.org/videos/embed/xyAjD3tfoZybQXuQDmfA6X9052025-10-05T10:35:39.988ZYES2025 TeamsNOhttps://video.igem.org/w/gkd9NJhBkKXjuS6MdwW3bFhttps://video.igem.org/lazy-static/thumbnails/223b1cf3-15f5-4f1a-8c12-0c79a668f9e6.jpgHK-Joint-School: complex_25_acephate (2025)HK-Joint-School: complex_25_acephate (2025)https://static.igem.org/peertube/streaming-playlists/hls/7c27b34a-8b42-4667-90b4-fb679f02f443/e9f7e3be-d636-46d6-9474-fe76026860f7-master.m3u8https://video.igem.org/videos/embed/gkd9NJhBkKXjuS6MdwW3bF20072025-10-05T11:00:33.970ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/mNHTK7fCTidwnHptWu6V6Ghttps://video.igem.org/lazy-static/thumbnails/a673b9f2-120f-4e91-97a7-6a55e2975cb3.jpgHK-Joint-School: complex_25_chlorpyrifos (2025)HK-Joint-School: complex_25_chlorpyrifos (2025)https://static.igem.org/peertube/streaming-playlists/hls/a87ccdb6-0a6f-448f-8f8e-7cc741bb0746/0fe92d64-ce90-4c45-9f9e-070f897e906b-master.m3u8https://video.igem.org/videos/embed/mNHTK7fCTidwnHptWu6V6G20022025-10-05T11:01:11.169ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/sGnrYae2KqtQ8GAAc7q5GQhttps://video.igem.org/lazy-static/thumbnails/0997dc20-2be8-4344-9d2b-c84311d80974.jpgHK-Joint-School: complex_25_glyphosateX (2025)HK-Joint-School: complex_25_glyphosateX (2025)https://static.igem.org/peertube/streaming-playlists/hls/d83092d6-ee8d-4d2c-92a6-15e250a65d50/c0b86b4a-d344-41dd-b667-9ee4bccc8e08-master.m3u8https://video.igem.org/videos/embed/sGnrYae2KqtQ8GAAc7q5GQ20092025-10-05T11:02:28.998ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/mfXUaCZAQmvENi5txs1rcnhttps://video.igem.org/lazy-static/thumbnails/93bed4e9-c8af-412b-a2ae-c09af0469896.jpgHK-Joint-School: complex_50_chlorpyrifos (2025)HK-Joint-School: complex_50_chlorpyrifos (2025)https://static.igem.org/peertube/streaming-playlists/hls/a40da29d-bbf7-4dda-b6fc-b43f147fccd7/1b6a8c9c-7e18-49c6-9800-151901ad9672-master.m3u8https://video.igem.org/videos/embed/mfXUaCZAQmvENi5txs1rcn10002025-10-05T11:02:40.885ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/dg7EE4uTd1W5e8vi7wzbCyhttps://video.igem.org/lazy-static/thumbnails/939ac2ea-0e3d-40d0-9eac-142323815b25.jpgHK-Joint-School: complex_50_acetamiprid (2025)HK-Joint-School: complex_50_acetamiprid (2025)https://static.igem.org/peertube/streaming-playlists/hls/6349edc8-555d-421b-a7df-4db1f45b0838/00536f59-8e17-40ae-b8eb-d2d80d9ab791-master.m3u8https://video.igem.org/videos/embed/dg7EE4uTd1W5e8vi7wzbCy10002025-10-05T11:03:04.686ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/5GTC232hk6zhbWk5fhZ8wEhttps://video.igem.org/lazy-static/thumbnails/8564e859-6119-4e8f-8031-d08dbbda829a.jpgHK-Joint-School: complex_50_acephate (2025)HK-Joint-School: complex_50_acephate (2025)https://static.igem.org/peertube/streaming-playlists/hls/261a1e35-e4b3-4f91-80c4-a385fe4ce816/782673d0-619b-4d67-a49e-5d6ecef4a23a-master.m3u8https://video.igem.org/videos/embed/5GTC232hk6zhbWk5fhZ8wE10002025-10-05T11:03:12.235ZYES2025 TeamsNOhttps://video.igem.org/w/1M41V4iAuBuy2YRNBdYeTEhttps://video.igem.org/lazy-static/thumbnails/7f4e924f-8a67-41fb-9d47-cbc2283e30e3.jpgHK-Joint-School: complex_50_glyphosateY (2025)HK-Joint-School: complex_50_glyphosateY (2025)https://static.igem.org/peertube/streaming-playlists/hls/064a5403-f738-47ba-a3a2-1008249ca4e8/2a4b2e38-c246-4431-a0ef-8eeb0fbc9c3c-master.m3u8https://video.igem.org/videos/embed/1M41V4iAuBuy2YRNBdYeTE10002025-10-05T11:04:26.213ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/4idARFGe6uvL7xvsxvQnsXhttps://video.igem.org/lazy-static/thumbnails/ea2133c8-9735-4b33-98e0-f318b2cda8cb.jpgBarcelona-UB: Loop OFF-ON to ON-OFF switch (2025)Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/1ab2d360-ea11-4b87-a43a-d313ecee80bf/40b81892-2181-4fad-97e4-d96922eb7295-master.m3u8https://video.igem.org/videos/embed/4idARFGe6uvL7xvsxvQnsX8002025-10-05T10:45:34.296ZYES2025 TeamsNOhttps://video.igem.org/w/1qK3mmWmJRwUfARJD76oRBhttps://video.igem.org/lazy-static/thumbnails/c1445221-9dc4-4c99-853e-070d6e9ad65f.jpgHK-Joint-School: complex_50_malathionY (2025)HK-Joint-School: complex_50_malathionY (2025)https://static.igem.org/peertube/streaming-playlists/hls/03746009-fc1f-416d-bfd6-ed800298249d/33337850-8f5c-4269-8578-81a7d9e24363-master.m3u8https://video.igem.org/videos/embed/1qK3mmWmJRwUfARJD76oRB10002025-10-05T11:04:37.926ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/hKgsi4Lc8kt5hXaU2MTRbzhttps://video.igem.org/lazy-static/thumbnails/06d60f47-314a-4351-ae83-1ad07fcb3d06.jpgHK-Joint-School: complex_50_glyphosateX (2025)HK-Joint-School: complex_50_glyphosateX (2025)https://static.igem.org/peertube/streaming-playlists/hls/879cb960-dd92-4e11-9ca8-bd4c89271031/49a22edd-5e8a-40f1-a38f-067a801580ba-master.m3u8https://video.igem.org/videos/embed/hKgsi4Lc8kt5hXaU2MTRbz10012025-10-05T11:04:54.370ZHK-Joint-SchoolYES2025 TeamsNOhttps://video.igem.org/w/9ZqmWFmDBRfLcFgY5pZ9Zjhttps://video.igem.org/lazy-static/thumbnails/b1e9ec63-abc4-4465-b8b2-6db3ac2f4daa.jpgAFMU-China: shahua (2025)https://2025.igem.wiki/afmu-china/https://static.igem.org/peertube/streaming-playlists/hls/48cd8468-8582-4254-803b-5a7199ac3c74/140a4295-10c8-4bd0-9cd1-7e84054e42b3-master.m3u8https://video.igem.org/videos/embed/9ZqmWFmDBRfLcFgY5pZ9Zj240022025-10-05T09:53:26.598ZYES2025 TeamsNOhttps://video.igem.org/w/mWePP1ZRTCs9KtfbxeTWUwhttps://video.igem.org/lazy-static/thumbnails/0508fb0f-ad8b-4cfc-8f33-c600ef4d2f0d.jpgCSMU-Taiwan: Docking of Anti-IL-23 scFv Prototype #2 with IL-23 p19 Subunit (2025)This video presents the molecular docking between our Anti-IL-23 scFv Prototype #2 and the IL-23 p19 subunit, a key component responsible for IL-23–mediated inflammatory signaling. Using ClusPro docking analysis, we visualized how the prototype scFv binds to p19 through complementary paratope–epitope interactions. These results provide structural insights into the potential neutralizing mechanism of our scFv prototype against IL-23.https://static.igem.org/peertube/streaming-playlists/hls/a98974d1-6c54-46bd-984a-5b3144804a26/a9191c6e-56f8-40e6-ac26-5328ca42558d-master.m3u8https://video.igem.org/videos/embed/mWePP1ZRTCs9KtfbxeTWUw2082025-10-05T10:24:10.678ZYES2025 TeamsNOhttps://video.igem.org/w/hDdgxUh3aW2GBXeo9xkL5dhttps://video.igem.org/lazy-static/thumbnails/bb8236c8-58a3-4e84-ba18-da4d8773daf0.jpgCSMU-Taiwan: Docking of Anti-IL-23 scFv Prototype #3 with IL-23 p19 Subunit (2025)This video presents the docking simulation between Anti-IL-23 scFv Prototype #3 and the IL-23 p19 subunit generated using ClusPro. The predicted complex shows potential binding interfaces and complementarity between the scFv and the target subunit, providing structural insight into their possible interaction.https://static.igem.org/peertube/streaming-playlists/hls/86c44c6c-f323-481a-a0c7-4c059279f50c/ceeeeb8d-26f6-40fd-a93c-ef804f531f5d-master.m3u8https://video.igem.org/videos/embed/hDdgxUh3aW2GBXeo9xkL5d30302025-10-05T10:31:26.482ZYES2025 TeamsNOhttps://video.igem.org/w/vBoZgAa4RQPFaea3UPcxeZhttps://video.igem.org/lazy-static/thumbnails/e2ab5537-fdc9-4035-a3d8-7c29a659b869.jpgWHU-China: Hardware introduction (2025) [English]This video gives a thorough introduction to the hardware of our team. If you are a new hand at hardware engineering, you can take a brief look of how hardware engineering solutions can enhance biological experiments; if you are familiar with hardware engineering, we are glad to know that it inspires further innovation on the foundation of our work.https://static.igem.org/peertube/streaming-playlists/hls/efca3835-fc3f-49ef-a9f3-df96197ffaaf/f5902537-2e4c-4f42-a7ff-4ddbd9d5f376-master.m3u8https://video.igem.org/videos/embed/vBoZgAa4RQPFaea3UPcxeZ2590142025-10-05T10:26:46.952ZYES2025 TeamsNOhttps://video.igem.org/w/9U3qG3tzMAeG285RcXMthZhttps://video.igem.org/lazy-static/thumbnails/2a46be7b-af7c-4a98-8ed9-72efd7d56c41.jpgBarcelona-UB: SCR Translational influence (2025)SCR Translational influence https://2025.igem.wiki/barcelona-ubhttps://static.igem.org/peertube/streaming-playlists/hls/480d47bb-bd3f-47e5-83ec-4ac4473a613d/d0f26ba0-8f90-4396-a7f8-05e97ad22b55-master.m3u8https://video.igem.org/videos/embed/9U3qG3tzMAeG285RcXMthZ1305832025-10-05T10:37:25.227ZYES2025 TeamsNOhttps://video.igem.org/w/dATCMRyaam6WGszY3gkXaNhttps://video.igem.org/lazy-static/thumbnails/b168b1aa-3aa1-47fe-9684-60f5e5cb80bc.jpgEstonia-TUBI: Clear waterfall (2025)The video was generated using Google's Veo3 AI model. It is going to be used as a page background animation in certain sections on the Home and description pages. https://2025.igem.wiki/estonia-tubi/home https://2025.igem.wiki/estonia-tubi/descriptionhttps://static.igem.org/peertube/streaming-playlists/hls/660cc5db-7f8b-4fd2-85d4-b687b485379c/c8fc3fa5-7b88-4951-97d6-be2b57822326-master.m3u8https://video.igem.org/videos/embed/dATCMRyaam6WGszY3gkXaN1601012025-10-05T11:16:24.233ZYES2025 TeamsNOhttps://video.igem.org/w/gSgwy9MKBt7MEpuB8otL8ihttps://video.igem.org/lazy-static/thumbnails/41602fbd-9458-4a89-95c9-b871b96f2072.jpgEstonia-TUBI: Wastewater waterfall (2025)The video was generated using Google's Veo3 AI model. It is going to be used as a page background animation in certain sections on the Home and description pages. https://2025.igem.wiki/estonia-tubi/home https://2025.igem.wiki/estonia-tubi/descriptionhttps://static.igem.org/peertube/streaming-playlists/hls/807dd64e-20cb-4762-9cc6-11f513f8048f/f6b995ce-eb9b-47d1-bd11-14ffc7dd2621-master.m3u8https://video.igem.org/videos/embed/gSgwy9MKBt7MEpuB8otL8i1601092025-10-05T11:20:36.190ZYES2025 TeamsNOhttps://video.igem.org/w/upPPhDBU9uKMvrQTRsU2D5https://video.igem.org/lazy-static/thumbnails/decdab71-ec6b-4876-9e24-8c9bfb11ca7c.jpgVilnius-Lithuania: landingTickLoop (2025)landing page header video for wiki https://2025.igem.wiki/vilnius-lithuania/ https://static.igem.org/peertube/streaming-playlists/hls/e61374d7-62ea-4dac-ac6d-eee54cdaaaaa/0542f637-cf23-4191-bc4d-01130a0f5698-master.m3u8https://video.igem.org/videos/embed/upPPhDBU9uKMvrQTRsU2D560142025-10-05T11:26:58.904ZYES2025 TeamsNOhttps://video.igem.org/w/kmgQGcD3tTbHDnmg6nC2Qehttps://video.igem.org/lazy-static/thumbnails/aac2a99a-2891-4e4f-9445-3c4e348bb755.jpgSJTU-Software: High school presentation (2025) [English]HP Practice Exploration Activity https://2025.igem.wiki/sjtu-software/https://static.igem.org/peertube/streaming-playlists/hls/9cb2457a-88ad-4ba3-83fa-053e33c0cee1/28414c38-1a02-415e-b480-e6b0d10aa94f-master.m3u8https://video.igem.org/videos/embed/kmgQGcD3tTbHDnmg6nC2Qe112052025-10-05T11:50:39.353ZHUMAN PRACTICEYES2025 TeamsNOhttps://video.igem.org/w/ae3RpB72M8evdtucyDRWJChttps://video.igem.org/lazy-static/thumbnails/3dc0790b-8a85-4867-a42e-b3937613ff39.jpgSJTU-Software: Primary school presentation (2025) [Chinese]HP Practice Exploration Activity https://2025.igem.wiki/sjtu-software/https://static.igem.org/peertube/streaming-playlists/hls/4ab4aca9-83a5-46c9-8740-ff139532d1f8/a2c9d115-dcad-4ab1-8174-535866eb65db-master.m3u8https://video.igem.org/videos/embed/ae3RpB72M8evdtucyDRWJC29092025-10-05T11:56:03.149ZHUMAN PRACTICEYES2025 TeamsNOhttps://video.igem.org/w/5RSeb2MekXR6HAeZYNGz6fhttps://video.igem.org/lazy-static/thumbnails/55c56879-10eb-4d3e-a0e4-b2e4d00eabb5.jpgGEC-Guangzhou: Initial Exploration (2025)GEC-Guangzhou: Initial Exploration (2025)https://static.igem.org/peertube/streaming-playlists/hls/275af3f3-5e77-4fe5-981e-95503402a1b4/8d6daa10-f35b-4711-ab72-9a80f6da47ad-master.m3u8https://video.igem.org/videos/embed/5RSeb2MekXR6HAeZYNGz6f34022025-10-05T12:00:21.956ZYES2025 TeamsNOhttps://video.igem.org/w/ivnwTCwARsEud4C7EDb9JFhttps://video.igem.org/lazy-static/thumbnails/3c7e3cba-2ef0-4394-810f-7105e95b1666.jpgGEC-Guangzhou: Generation 1 Sampling Process (2025)GEC-Guangzhou: Generation 1 Sampling Process (2025)https://static.igem.org/peertube/streaming-playlists/hls/8dc5324c-7862-49d8-9865-1532f6aa4beb/da12f22e-03ec-4161-9109-a503a0996cee-master.m3u8https://video.igem.org/videos/embed/ivnwTCwARsEud4C7EDb9JF63032025-10-05T12:06:34.309ZYES2025 TeamsNOhttps://video.igem.org/w/onF76SwnzqLqaHgjExVNvThttps://video.igem.org/lazy-static/thumbnails/2392a473-44e3-49da-9a3f-ffe661f891b8.jpgGEC-Guangzhou: Generation 2 Sampling Process (2025)GEC-Guangzhou: Generation 2 Sampling Process (2025)https://static.igem.org/peertube/streaming-playlists/hls/b52fc4e5-2668-4ce9-92dc-ffbcb46f7935/ce743328-e4bc-46da-88f7-83ce76346fc2-master.m3u8https://video.igem.org/videos/embed/onF76SwnzqLqaHgjExVNvT104002025-10-05T12:11:55.765ZYES2025 TeamsNOhttps://video.igem.org/w/sYhCeMpbQg8VR2yrMeLVhyhttps://video.igem.org/lazy-static/thumbnails/0b9ec862-8690-47dd-b768-1854135a3ebc.jpgGEC-Guangzhou: Generation 3 Sampling Process (2025)GEC-Guangzhou: Generation 3 Sampling Process (2025)https://static.igem.org/peertube/streaming-playlists/hls/da69806d-5a57-4933-bc41-d9f0b61df544/8cce2448-b377-445d-ad9f-de5255f54862-master.m3u8https://video.igem.org/videos/embed/sYhCeMpbQg8VR2yrMeLVhy127012025-10-05T12:14:58.991ZYES2025 TeamsNOhttps://video.igem.org/w/j4PLjDQTz8yTRuCUgfSgQehttps://video.igem.org/lazy-static/thumbnails/3674f219-4dac-4f26-9f28-4b011a5f26ae.jpgSJTU-Software: Volunteer Teaching (2025) [Chinese]HP Practice Exploration Activity https://2025.igem.wiki/sjtu-software/https://static.igem.org/peertube/streaming-playlists/hls/924d29b3-fc58-4a21-a943-20f397297819/c5515bf0-94ae-4064-826b-22d3d3e606db-master.m3u8https://video.igem.org/videos/embed/j4PLjDQTz8yTRuCUgfSgQe217072025-10-05T12:28:08.074ZHUMAN PRACTICEYES2025 TeamsNOhttps://video.igem.org/w/1R3h1thqrvNbpWRnZeKX1ahttps://video.igem.org/lazy-static/thumbnails/5e22dd92-eaa8-4fed-8ca9-a76c02300e32.jpgGEC-Guangzhou: Assembly Demonstration of the 3D-Printed Shaker (2025) [ChineseGEC-Guangzhou: Assembly Demonstration of the 3D-Printed Shaker (2025) [Chinesehttps://static.igem.org/peertube/streaming-playlists/hls/06d8d8ec-fa68-4800-b0db-50436b414bad/5d68e06c-91a2-4100-9412-a6e3b5fe65d9-master.m3u8https://video.igem.org/videos/embed/1R3h1thqrvNbpWRnZeKX1a286032025-10-05T12:27:10.591ZYES2025 TeamsNOhttps://video.igem.org/w/f7E26un6yDRLBYDpRXMApUhttps://video.igem.org/lazy-static/thumbnails/13bb8515-d882-4ab3-aa72-f7725f42bb3b.jpgEstonia-TUBI: assembling (2025)Assembling the reactor. Video performed and shot by team members. https://2025.igem.wiki/estonia-tubi/modelhttps://static.igem.org/peertube/streaming-playlists/hls/724dd575-6a49-471d-818f-b233da3e118a/55ef407f-f206-483d-8544-8330c89b366b-master.m3u8https://video.igem.org/videos/embed/f7E26un6yDRLBYDpRXMApU2970172025-10-05T12:45:22.976ZYES2025 TeamsNOhttps://video.igem.org/w/t9xvpAjX74NCBmnuaBdwyfhttps://video.igem.org/lazy-static/thumbnails/5cf2dc2c-5826-4f12-94c9-7928990d0447.jpgEstonia-TUBI: making_cells_part1 (2025)Making acrylic cells part 1. Video performed and shot by team members. https://2025.igem.wiki/estonia-tubi/model https://static.igem.org/peertube/streaming-playlists/hls/dbd81c61-bd42-4b5d-bd8d-37ee437934b6/3a9b70b3-7940-4b7d-853a-7ca8c9531389-master.m3u8https://video.igem.org/videos/embed/t9xvpAjX74NCBmnuaBdwyf485002025-10-05T12:58:18.900ZYES2025 TeamsNOhttps://video.igem.org/w/t6hgkWqoe8fmL2yAcrj81chttps://video.igem.org/lazy-static/thumbnails/a7d18398-2aa0-4a6e-b8fb-24038fcb2508.jpgEstonia-TUBI: making_ cells_part2 (2025)Assembling acrylic cells part 2. Video performed and shot by team members. https://2025.igem.wiki/estonia-tubi/modelhttps://static.igem.org/peertube/streaming-playlists/hls/db637c6d-fdbf-4837-a23e-094aa14534c7/7e532846-c059-4e03-92d9-0bef40340e65-master.m3u8https://video.igem.org/videos/embed/t6hgkWqoe8fmL2yAcrj81c466052025-10-05T13:18:09.053ZYES2025 TeamsNOhttps://video.igem.org/w/ofhb1tfY1QfjZgKX3P2QdVhttps://video.igem.org/lazy-static/thumbnails/a127bf4c-5680-46c1-b7fb-dffa36b5a80e.jpgEstonia-TUBI: exploded_view (2025)3D animated view of reactor Video performed and shot by team members. https://2025.igem.wiki/estonia-tubi/modelhttps://static.igem.org/peertube/streaming-playlists/hls/b4276e13-d2b5-4f0d-94ad-4514ff49d145/34a295a5-a6a0-400e-bafa-e6d4695711a2-master.m3u8https://video.igem.org/videos/embed/ofhb1tfY1QfjZgKX3P2QdV170102025-10-05T12:36:39.418ZYES2025 TeamsNOhttps://video.igem.org/w/dHnMQtySkmHWvFUasQpbhshttps://video.igem.org/lazy-static/thumbnails/0e681915-f43c-44b9-9b4e-2c2246605f1c.jpgEstonia-TUBI: injecting (2025)Filling the reactor. Video performed and shot by team members. https://2025.igem.wiki/estonia-tubi/modelhttps://static.igem.org/peertube/streaming-playlists/hls/66f49654-311e-4dd6-a45d-d79cfff8d93a/43040ff7-0a43-40b5-b919-7fcdeb17195a-master.m3u8https://video.igem.org/videos/embed/dHnMQtySkmHWvFUasQpbhs38032025-10-05T20:37:37.584ZYES2025 TeamsNOhttps://video.igem.org/w/hvdixYPvMeiZE6KCTWknhGhttps://video.igem.org/lazy-static/thumbnails/30704d2d-a25c-4732-8902-8cab285b30e1.jpgTAU-Israel: Duplex during full MD production (2025)Representative MD trajectory of an ASO-RNA duplex during the production stage.https://static.igem.org/peertube/streaming-playlists/hls/85a65ea0-e4d7-4bc2-832a-ca09e57dfa74/24d5fbdb-ec59-47f3-b163-017576d37413-master.m3u8https://video.igem.org/videos/embed/hvdixYPvMeiZE6KCTWknhG1510152025-10-05T12:48:12.432Zmolecular dynamicsYES2025 TeamsNOhttps://video.igem.org/w/aGY5w5fyZVgyg17TKmRBPNhttps://video.igem.org/lazy-static/thumbnails/6f920faf-daf3-4481-9f4f-8fc216d9062f.jpgGEC-Guangzhou: Rapid Inoculation Device (2025)GEC-Guangzhou: Rapid Inoculation Device (2025)https://static.igem.org/peertube/streaming-playlists/hls/4e9a8ed7-9364-4314-900c-bccfe8c9cb48/5e929daf-8ae8-4099-abbd-16460ab81bdf-master.m3u8https://video.igem.org/videos/embed/aGY5w5fyZVgyg17TKmRBPN153012025-10-05T20:48:08.652ZYES2025 TeamsNOhttps://video.igem.org/w/9eJse5SbMKTUSu4hhx4pcAhttps://video.igem.org/lazy-static/thumbnails/45ee124b-f130-4a70-bcae-47f2bb83c96d.jpgUCLouvain: Awareness about inclusivity in science (2025) [English]We created this awareness video to promote inclusivity in science. We showed it in secondary schools and shared it on our social media platforms.https://static.igem.org/peertube/streaming-playlists/hls/42b3f0bb-d886-487b-ae25-f7dcc508d9c4/ed0bf274-aa33-4f13-b8b2-b55fbcfcf2bd-master.m3u8https://video.igem.org/videos/embed/9eJse5SbMKTUSu4hhx4pcA63042025-10-05T13:26:42.408ZYES2025 TeamsNOhttps://video.igem.org/w/tzUynTRFveKJvkykTfpYLdhttps://video.igem.org/lazy-static/thumbnails/bdf05f95-90a9-43f5-8c4c-b2e35615d67d.jpgTAU-Israel: Initial Duplex Structure (2025)Initial 3D structure of the ASO-RNA duplex after PDB construction and cleaning.https://static.igem.org/peertube/streaming-playlists/hls/df62adab-0da1-4ebe-bcca-f2a2f3c944fc/a8eef2f2-feeb-488c-8d1c-3cf5b185bba2-master.m3u8https://video.igem.org/videos/embed/tzUynTRFveKJvkykTfpYLd200112025-10-05T13:04:21.618Zmolecular dynamicsYES2025 TeamsNOhttps://video.igem.org/w/oPNnrj2TWB6Dmw1d8Qow76https://video.igem.org/lazy-static/thumbnails/a56e61db-5a11-432e-9c48-d16a20214221.jpgGEC-Guangzhou: Full Process Demonstration (2025)GEC-Guangzhou: Full Process Demonstration (2025)https://static.igem.org/peertube/streaming-playlists/hls/b8d59580-286d-4db5-9b62-1f882536d269/014e3a4e-13f6-428b-bfac-c8c0fdbecdf4-master.m3u8https://video.igem.org/videos/embed/oPNnrj2TWB6Dmw1d8Qow76114002025-10-05T20:50:50.684ZYES2025 TeamsNOhttps://video.igem.org/w/nVTLAEpwihPB5xK9pgThTJhttps://video.igem.org/lazy-static/thumbnails/0cd19e10-5c10-4dc4-8d79-664dcde543d3.jpgTAU-Israel: Solvated Duplex (2025)Solvated ASO-RNA duplex after system setup in LEaP, with explicit water molecules and neutralizing ions.https://static.igem.org/peertube/streaming-playlists/hls/b1963c43-603a-44c1-a1ba-3da3c25d49c0/a282150e-4b11-4ceb-abb3-05e4b8689a47-master.m3u8https://video.igem.org/videos/embed/nVTLAEpwihPB5xK9pgThTJ28062025-10-05T13:22:29.478Zmolecular dynamicsYES2025 TeamsNOhttps://video.igem.org/w/p56ES3xCxYEqD5MxeiWJuyhttps://video.igem.org/lazy-static/thumbnails/f3c1cf67-ec8a-4b99-90d2-4ad1213100b4.jpgRains-ECO: Entrepreneurship (2025) [English]The Video is about of the Entrepreneurship The Wiki Link: https://2025.igem.wiki/rains-eco/entrepreneurshiphttps://static.igem.org/peertube/streaming-playlists/hls/bad4a896-d38d-429c-97ca-17107fea9a40/0eb432fd-45ce-4838-bfd7-b15016253443-master.m3u8https://video.igem.org/videos/embed/p56ES3xCxYEqD5MxeiWJuy89052025-10-05T13:04:10.806ZYES2025 TeamsNOhttps://video.igem.org/w/1wW4mmXbmEKfYtcCHUQJ9whttps://video.igem.org/lazy-static/thumbnails/95529744-f872-4e44-8941-d36e3142478c.jpgHongKong-JSS: Protein synthesis (2025) [English]This educational video, posted on Instagram, explores the fascinating process of protein synthesis. It explains how DNA is transcribed into mRNA and how ribosomes translate this information to create proteins, which are essential for countless biological functions. The goal is to enhance understanding of this vital molecular process. https://2025.igem.wiki/hongkong-jss/https://static.igem.org/peertube/streaming-playlists/hls/0451a09c-8aba-448e-b1df-40ea55d1beb6/f0f277c3-3dc0-457d-b1f7-a8f12a962d47-master.m3u8https://video.igem.org/videos/embed/1wW4mmXbmEKfYtcCHUQJ9w38022025-10-05T13:13:30.117ZYES2025 TeamsNOhttps://video.igem.org/w/jD5Wh2QKqt7nXFL1rHTrcohttps://video.igem.org/lazy-static/thumbnails/d972300e-fb45-43ea-8d6d-66aa3519c804.jpgXJTLU-CHINA: Hardware Buoyancy Test (2025)Hardware Buoyancy Test. To ensure the hardware remains afloat on the water surface, we wrapped sponge around its edges. This video will be used on https://2025.igem.wiki/xjtlu-china/hardwarehttps://static.igem.org/peertube/streaming-playlists/hls/96f20ea2-58ea-47a0-9163-aa56ec61f440/b9ae4914-8b0e-429d-9d8e-b23f059ba82f-master.m3u8https://video.igem.org/videos/embed/jD5Wh2QKqt7nXFL1rHTrco60362025-10-05T13:13:33.148ZYES2025 TeamsNOhttps://video.igem.org/w/jKxoij9XKymKuK3HKw1enphttps://video.igem.org/lazy-static/thumbnails/6abb8e3f-941f-44a3-a2d2-292ffd23b531.jpgHongKong-JSS: Synthetic biology (2025) [English]This video delves into synthetic biology, using the Impossible Burger as a prime example. It highlights how this innovative food product is created using genetically engineered ingredients to replicate the taste and texture of meat. The aim is to showcase the potential of synthetic biology in sustainable food production. https://2025.igem.wiki/hongkong-jss/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/97d8d1c0-d3fe-41d5-ab0b-516050321dad/e95bab30-0c58-422e-bbf7-50ca0bdefed3-master.m3u8https://video.igem.org/videos/embed/jKxoij9XKymKuK3HKw1enp32042025-10-05T13:13:55.979ZYES2025 TeamsNOhttps://video.igem.org/w/rX4F3ZFzKaB5TaabB17NZghttps://video.igem.org/lazy-static/thumbnails/3776b1a4-c9b2-4e50-a56f-6f484ae6e3f6.jpgHongKong-JSS: Gif of our small 3D printed game! DNA duo (2025)This is a gif of our small 3D printed game! DNA duo, creating a long puzzle when all 40 sets of each code are completed. https://2025.igem.wiki/hongkong-jss/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/d224a339-ff50-48a4-b148-41c950174741/e2e51c9f-f9b1-43d5-af94-49783c6b9fae-master.m3u8https://video.igem.org/videos/embed/rX4F3ZFzKaB5TaabB17NZg70112025-10-05T13:23:26.339ZYES2025 TeamsNOhttps://video.igem.org/w/4RGW1QFcwqmtyE95QyxJPHhttps://video.igem.org/lazy-static/thumbnails/3d045e85-960d-4145-8c59-cf1b1ee4ee5d.jpgHS-Beta: Interview (2025) [Chinese]We conducted a street interview in Shanghai, China, for our iGEM project, with 20 interviewees participating.https://static.igem.org/peertube/streaming-playlists/hls/1f3c15e3-faf0-4158-89ed-b0b8ee092c8f/09cd6c47-ff72-4c5e-89a4-a57488291a45-master.m3u8https://video.igem.org/videos/embed/4RGW1QFcwqmtyE95QyxJPH510222025-10-05T13:22:19.193ZYES2025 TeamsNOhttps://video.igem.org/w/wQx51TcE5mBrxZE23KQo79https://video.igem.org/lazy-static/thumbnails/4f770b4a-7192-46b0-82bd-01e06186c75a.jpgUESTC-China: Showcase (2025) [English]UESTC-China: Showcase (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/f9b90202-9187-4c41-95a0-a24baea4d72c/b14a4d07-7370-46cc-9f92-e6e591de67f4-master.m3u8https://video.igem.org/videos/embed/wQx51TcE5mBrxZE23KQo791310252025-10-05T13:57:49.245ZYES2025 TeamsNOhttps://video.igem.org/w/9bzPY2u6JscQHXAWRE4TP3https://video.igem.org/lazy-static/thumbnails/0ea71f9a-8faa-498b-a6d2-e4a56c0b19b2.jpgUppsalaUniversity: Flocculation Experiment (2025)Video of the flocculation and sedimentation test for algae https://2025.igem.wiki/uppsalauniversity/measurement https://static.igem.org/peertube/streaming-playlists/hls/424364c3-8dcc-4671-924c-a51ba820facc/6a196ca0-7476-46ea-b897-14a86c564573-master.m3u8https://video.igem.org/videos/embed/9bzPY2u6JscQHXAWRE4TP35230142025-10-05T16:32:21.644ZYES2025 TeamsNOhttps://video.igem.org/w/rWva8GZvXCudrD7YwUbQ5Phttps://video.igem.org/lazy-static/thumbnails/4bda1e73-ad8c-47f3-9116-607aab43608c.jpgNanjing-China: Inclusive-Part3-Summary (2025) [English]In this video, we summarize the microbial painting activity conducted jointly by five teams.https://static.igem.org/peertube/streaming-playlists/hls/d2109958-63b1-4fbd-b3b1-052cdb3aa967/12d35069-224d-4b76-90f5-0065420911d5-master.m3u8https://video.igem.org/videos/embed/rWva8GZvXCudrD7YwUbQ5P97062025-10-05T16:35:27.429ZYES2025 TeamsNOhttps://video.igem.org/w/ggKyVktDU8dSn7DyT3zRWChttps://video.igem.org/lazy-static/thumbnails/235db024-ef5f-48a0-8337-e79dfe3f9e28.jpgJGU-Mainz: Science Slam (2025) [German]Video of the science slam organized by the "Akademie für Wissenschaften und der Literatur Mainz - WissKomm Academy", where two of our team leads, Lilli Nina Worster and Marcel Michael Syre, presented our project to a broad audience. Get more information on our Wiki: https://2025.igem.wiki/jgu-mainz/https://static.igem.org/peertube/streaming-playlists/hls/7bac15ff-23ef-4b71-a54d-9889116aa4ec/08499473-02a6-4dd1-a029-2ce8632c435e-master.m3u8https://video.igem.org/videos/embed/ggKyVktDU8dSn7DyT3zRWC8150132025-10-05T17:27:21.357ZPublic EngagementEducationScience SlamYES2025 TeamsNOhttps://video.igem.org/w/1vxyznToYmNwNNm3fR7P7Vhttps://video.igem.org/lazy-static/thumbnails/2316811d-2e25-4c36-b006-64219a8e31e2.jpgTJUSLS-China: Human Practices (2025) [Chinese]human practice interviewhttps://static.igem.org/peertube/streaming-playlists/hls/04200517-36d5-40f1-a8d8-adeb68fd776d/045548bf-f8fe-4ad8-927c-5299dbc26430-master.m3u8https://video.igem.org/videos/embed/1vxyznToYmNwNNm3fR7P7V213092025-10-05T16:42:47.840ZYES2025 TeamsNOhttps://video.igem.org/w/fERn7B5Ekqv5cJQKrsvmAphttps://video.igem.org/lazy-static/thumbnails/8684a359-33ad-4f2e-9a25-1e0770ef1153.jpgVilnius-Lithuania: LFA demonstration (2025)Lateral flow assay test demonstration for Vilnius-Lithuania iGEM 2025 wiki page: https://2025.igem.wiki/vilnius-lithuania/https://static.igem.org/peertube/streaming-playlists/hls/76cca04c-64e2-4fd4-b80b-1ea694323a23/0fbde01d-4474-4e07-ba8f-941c1e1efc6e-master.m3u8https://video.igem.org/videos/embed/fERn7B5Ekqv5cJQKrsvmAp10022025-10-05T16:43:15.964ZYES2025 TeamsNOhttps://video.igem.org/w/k7aqwDJ4P4VTuQagdQ1V1nhttps://video.igem.org/lazy-static/thumbnails/8c0015dc-cedf-4af3-a5b3-082b43f86cb1.jpgCSMU-Taiwan: Docking of Risankizumab-Derived scFv with IL-23 p19 Subunit (2025)This video presents the docking simulation between the Risankizumab-derived scFv and the IL-23 p19 subunit generated using ClusPro. The predicted complex displays potential contact regions and structural complementarity between the scFv and p19, offering a visual reference for their possible molecular interaction.https://static.igem.org/peertube/streaming-playlists/hls/9ab9e77b-ae3a-46c9-b1c3-095e48b6b749/7ec3306e-4291-42a2-a094-404876a030a9-master.m3u8https://video.igem.org/videos/embed/k7aqwDJ4P4VTuQagdQ1V1n2082025-10-05T21:00:40.795ZYES2025 TeamsNOhttps://video.igem.org/w/efm43nHcoRCic7SQNUwaNjhttps://video.igem.org/lazy-static/thumbnails/3d785ca0-6340-48e8-8cae-d0658bb14d50.jpgTAU-Israel: Single-Stranded ASO Folding (2025)Illustrative example of a single-stranded ASO undergoing self-folding during molecular dynamics. This example illustrates how important it is to check these features, as ASOs can adopt secondary structures, limiting the ability to pair to a target RNA.https://static.igem.org/peertube/streaming-playlists/hls/6b4792b7-4393-4e7d-b61a-c84bca0bac72/5f1d6735-acc8-45cf-aed9-e64edd01d4bf-master.m3u8https://video.igem.org/videos/embed/efm43nHcoRCic7SQNUwaNj54042025-10-05T20:34:32.580ZYES2025 TeamsNOhttps://video.igem.org/w/u9BPQQPQVKFPqu7pvDErbkhttps://video.igem.org/lazy-static/thumbnails/e76d98bb-5af8-43f0-8a41-7718db6d379d.jpgBarcelona-UB: off-offswitch (2025)Accessory Video for explanations https://2025.igem.wiki/barcelona-ub/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/e3f3e916-4ba2-4684-9967-1d49c1cc81fb/aad7f758-1d73-4032-a2d2-44b23bae2c84-master.m3u8https://video.igem.org/videos/embed/u9BPQQPQVKFPqu7pvDErbk80402025-10-05T21:05:15.396ZYES2025 TeamsNOhttps://video.igem.org/w/to9TwhbkGrF2Pa5cKnn9Gghttps://video.igem.org/lazy-static/thumbnails/88fa6d82-fd33-4b97-bc97-96c924922c54.jpgCSMU-Taiwan: Docking of Ustekinumab-Derived scFv with IL-23 p40 Subunit (2025)This video presents the molecular docking simulation between the Ustekinumab-derived scFv and the IL-23 p40 subunit performed using ClusPro. The predicted complex reveals potential interaction surfaces and structural complementarity between the scFv and p40, providing a visual reference for their possible binding interface.https://static.igem.org/peertube/streaming-playlists/hls/ddbe9599-ac52-45bd-a561-e072c3739577/12e85ed6-a878-4e60-b36f-40dd6002c60e-master.m3u8https://video.igem.org/videos/embed/to9TwhbkGrF2Pa5cKnn9Gg40362025-10-05T21:03:19.957ZYES2025 TeamsNOhttps://video.igem.org/w/jZM8ypv5Pq3PVgDtb332hRhttps://video.igem.org/lazy-static/thumbnails/fad29a14-2e20-436b-8886-94a358c3414b.jpgUppsalaUniversity: Hi from us! (2025) [English]A hello from Team Uppsala with a short and fun explanation of our project! https://2025.igem.wiki/uppsalauniversity/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/99d5b40c-bba7-4549-abc5-78824416a1e5/2da48f00-bc1e-4e8c-ae76-367efb4fdff6-master.m3u8https://video.igem.org/videos/embed/jZM8ypv5Pq3PVgDtb332hR1190292025-10-05T17:35:04.238ZYES2025 TeamsNOhttps://video.igem.org/w/fn8TRvnSV4ZN44byzis1vdhttps://video.igem.org/lazy-static/thumbnails/cefd15fc-e72b-4b23-8084-e817ffd317e5.jpgBNUZH-China: mod demonstration (2025) [Chinese]This is a gameplay showcase of the BNUZH-China 2025 Team's Minecraft modhttps://static.igem.org/peertube/streaming-playlists/hls/74536cde-f056-4ce7-80eb-81b200da485e/6f7fdbcf-ba6b-47f3-83bb-c6da09084f17-master.m3u8https://video.igem.org/videos/embed/fn8TRvnSV4ZN44byzis1vd2160112025-10-05T18:29:05.711ZYES2025 TeamsNOhttps://video.igem.org/w/fiM1pWiugL8tEa5gA7DqSGhttps://video.igem.org/lazy-static/thumbnails/97ba870c-2989-4e0a-9cd2-4f78d2b8ea2e.jpgNanjing-China: Inclusive-Part3-Teaching (2025) [Chinese]To better assist non-biology majors in understanding microbial art, we collaborated with four other teams to produce instructional videos.https://static.igem.org/peertube/streaming-playlists/hls/73db526b-5453-44c7-a401-e2e5dfb64d04/c1c0a453-41db-4046-9de2-ec45327d6b62-master.m3u8https://video.igem.org/videos/embed/fiM1pWiugL8tEa5gA7DqSG190032025-10-05T20:13:57.878ZYES2025 TeamsNOhttps://video.igem.org/w/uNmTFTJXYYo9aqfkNGXynNhttps://video.igem.org/lazy-static/thumbnails/d56669a6-24bb-4c55-b14b-8f81e3db2769.jpgNanjing-China: Inclusive-Part1- Melanoma Educational B (2025) [Chinese]To help more migrant workers and farmers understand melanoma prevention and treatment, we have produced science-popularization short videos in local dialects.https://static.igem.org/peertube/streaming-playlists/hls/e938f875-4e64-4188-9475-413caa207108/0a7fa733-e7a3-400d-8cbf-4685dfbed69a-master.m3u8https://video.igem.org/videos/embed/uNmTFTJXYYo9aqfkNGXynN89002025-10-05T20:21:56.069ZYES2025 TeamsNOhttps://video.igem.org/w/hzm6HwsSLh8cFgNbbXwcckhttps://video.igem.org/lazy-static/thumbnails/9a265d2c-c429-4740-b19f-251a9ccc4c15.jpgBrno Czech Republic: Routine of Duckweed Scientist (2025) [English]Video shows a brief routine of a duckweed scientist working with our Cultivator (hardware solution). Music: Science Documentary by Aleksey Chistilin (a.k.a. Lexin_Music). https://static.igem.org/peertube/streaming-playlists/hls/863a262e-29eb-4c96-8298-6558541974fd/86257f56-330f-49db-92a2-5274ce3d5417-master.m3u8https://video.igem.org/videos/embed/hzm6HwsSLh8cFgNbbXwcck10401302025-10-05T20:28:04.107ZYES2025 TeamsNOhttps://video.igem.org/w/rKC71uM84kpTWoGsafhNx1https://video.igem.org/lazy-static/thumbnails/94c39374-ae66-4a87-b9ed-b1d5595fed93.jpgNanjing-China: Inclusive-Part1- Melanoma Educational Short A (2025) [Chinese]To help more and more people understand melanoma prevention and treatment, we produce scientifically accurate educational videos.https://static.igem.org/peertube/streaming-playlists/hls/d08bb2bf-eec3-483b-8bd7-31ed99a80bfe/57999f47-6ff4-4c13-b9be-aad89ed40b1c-master.m3u8https://video.igem.org/videos/embed/rKC71uM84kpTWoGsafhNx142002025-10-05T20:36:02.668ZYES2025 TeamsNOhttps://video.igem.org/w/ktcEKzzxhapScQfYJFLRx3https://video.igem.org/lazy-static/thumbnails/8615ce6d-f393-4dbd-a082-ec86e2210897.jpgCSU-CHINA: Workflow of the SPGM Model (2025)This video is to introduce workflow of the SPGM Model.https://static.igem.org/peertube/streaming-playlists/hls/9da9e835-a404-4dcc-961d-c99e484b427c/b309e9cd-d79b-4719-9be3-6c07cb1c1923-master.m3u8https://video.igem.org/videos/embed/ktcEKzzxhapScQfYJFLRx3110232025-10-05T20:10:16.958ZYES2025 TeamsNOhttps://video.igem.org/w/amMzp1nzVMXPddXZB1xj74https://video.igem.org/lazy-static/thumbnails/d42f00b2-6335-4215-b628-15608020195d.jpgNanjing-China: Inclusive-Part4- Sunscreen Knowledge Explained (2025) [English]We create educational short videos on sun protection to help more people understand how to properly protect themselves from the sun.https://static.igem.org/peertube/streaming-playlists/hls/4bc935de-91c4-455c-a076-2881b2ab5b5f/8f3489d5-bc6b-4870-9ded-c6ee0efe7e09-master.m3u8https://video.igem.org/videos/embed/amMzp1nzVMXPddXZB1xj7440022025-10-05T20:39:33.613ZYES2025 TeamsNOhttps://video.igem.org/w/cxaCCbKiX2y1BwDndwSWQ2https://video.igem.org/lazy-static/thumbnails/96ea5db0-cbad-40c3-b6a8-f1c77c1c3781.jpgNanjing-China: Inclusive-Part4- Colorectal Cancer Educational Short (2025)We produce educational videos about colorectal cancer to help more people understand this disease.https://static.igem.org/peertube/streaming-playlists/hls/5d6e8489-4493-4ec8-8df0-7ba35460fb69/e6d799fc-5a66-4914-b84c-f44b8f41359a-master.m3u8https://video.igem.org/videos/embed/cxaCCbKiX2y1BwDndwSWQ245032025-10-05T20:41:39.965ZYES2025 TeamsNOhttps://video.igem.org/w/ka89kPgd4TSCWYoZWZ1bamhttps://video.igem.org/lazy-static/thumbnails/4b8c7671-1df0-4ba5-955d-855da1ddc89c.jpgNanjing-China: Inclusive-Part4- Synthetic Biology Science Popularization Short A (2025) [English]We have produced synthetic biology science popularization videos to promote synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/9b23bb23-372f-4497-beec-3e7a23d9ed16/a213ed14-d3b8-4678-81ac-c30cdc6e17f5-master.m3u8https://video.igem.org/videos/embed/ka89kPgd4TSCWYoZWZ1bam47032025-10-05T20:51:04.441ZYES2025 TeamsNOhttps://video.igem.org/w/xa8iuB7LHNny6ukR5rvxYFhttps://video.igem.org/lazy-static/thumbnails/2f1325f8-f5c0-481d-b9e2-ddd9a36e55c2.jpgNanjing-China: Inclusive-Part4- Synthetic Biology Science Popularization Short B (2025) [English]We have produced synthetic biology science popularization videos to promote synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/fc517dfe-82a1-4b63-8c14-96179f26f78b/d59ba99c-5bd5-4ba4-ac28-94debd3310a4-master.m3u8https://video.igem.org/videos/embed/xa8iuB7LHNny6ukR5rvxYF45052025-10-05T20:58:30.032ZYES2025 TeamsNOhttps://video.igem.org/w/hfnUANL2qg3nqLapLLPxL5https://video.igem.org/lazy-static/thumbnails/8b002c63-c958-437e-abfe-09263f9153dd.jpgSquirrel-SouthEast: Generation 1 – Laboratory Prototype (2025)Squirrel-SouthEast: Generation 1 – Laboratory Prototype (2025)https://static.igem.org/peertube/streaming-playlists/hls/839421c7-3093-4af1-8a4d-060960cd0330/91c6147b-f471-4c84-8b2c-4fe8aefbf614-master.m3u8https://video.igem.org/videos/embed/hfnUANL2qg3nqLapLLPxL547072025-10-05T21:00:28.968ZYES2025 TeamsNOhttps://video.igem.org/w/rLZNAnwxvjwQYLMv3V1rZPhttps://video.igem.org/lazy-static/thumbnails/a17e405e-6341-4ea5-8b43-4f5b12f088da.jpgPuiChing-Macau: Block A (2025) [English]PuiChing-Macau: Block A (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/d0bcd0a0-0784-40c7-b484-b273c287aeed/2e63e971-78c9-40cb-b5d4-79d2bb7696c4-master.m3u8https://video.igem.org/videos/embed/rLZNAnwxvjwQYLMv3V1rZP39012025-10-05T20:34:59.872ZYES2025 TeamsNOhttps://video.igem.org/w/kBD2epCdVidLW2jT2trq9Ehttps://video.igem.org/lazy-static/thumbnails/9a6058f2-1108-4f81-8b70-39a429fe10d6.jpgSquirrel-SouthEast: Introduction of the Second Generation Equipment (2025) [English]Squirrel-SouthEast: Introduction of the Second Generation Equipment (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/9ed77b4c-33d7-4ad1-a217-1d1956e15a4e/9cbc0bbc-f898-4664-894f-86f2d8fa123e-master.m3u8https://video.igem.org/videos/embed/kBD2epCdVidLW2jT2trq9E151012025-10-05T21:02:25.606ZYES2025 TeamsNOhttps://video.igem.org/w/5mbFMfVQmN1wzUWgvmMVJ7https://video.igem.org/lazy-static/thumbnails/557bf28f-a61c-489c-8097-cddd8be29b71.jpgUTokyo: Trajectory of the LIRA domain in LIRA pegRNA (2025)Video of the trajectory of the LIRA domain in LIRA pegRNA. The video is generated by Visual Molecular Dynamics (VMD). Team wiki: https://2025.igem.wiki/utokyo/https://static.igem.org/peertube/streaming-playlists/hls/233603f3-d9db-421f-994f-359d00db0e26/07e2bf76-8863-4eda-a942-28433c2c3979-master.m3u8https://video.igem.org/videos/embed/5mbFMfVQmN1wzUWgvmMVJ7200102025-10-05T20:23:23.946ZYES2025 TeamsNOhttps://video.igem.org/w/i7ggqCCS4eKC3ADHfbwb5bhttps://video.igem.org/lazy-static/thumbnails/b67fd497-eed4-4b7b-86fd-43fa3ce83a2c.jpgUTokyo: Trajectory of Prime Editor protein-pegRNA and Prime Editor protein-LIRA pegRNA (2025)Video of the trajectory of Prime Editor protein-pegRNA and Prime Editor protein-LIRA pegRNA. On the left is Prime Editor protein-pegRNA and on the right is Prime Editor protein-LIRA pegRNA. The video is generated by Visual Molecular Dynamics (VMD). Team wiki: https://2025.igem.wiki/utokyo/https://static.igem.org/peertube/streaming-playlists/hls/8a8b3a51-d83a-428b-af2c-332198ba992a/559b8bd2-b656-497a-b3a9-1b38171341b8-master.m3u8https://video.igem.org/videos/embed/i7ggqCCS4eKC3ADHfbwb5b210192025-10-05T20:11:56.706ZYES2025 TeamsNOhttps://video.igem.org/w/rDTkvXvDMLJe6rW143XxY8https://video.igem.org/lazy-static/thumbnails/4759014c-04c6-4c3c-a92d-0256c964ea1e.jpgUTokyo: Co-transcriptional Folding of LIRA pegRNA (2025)Video of the co-transcriptional folding of LIRA pegRNA. The video is generated by Kinefold. Team wiki: https://2025.igem.wiki/utokyo/https://static.igem.org/peertube/streaming-playlists/hls/cfbe9f8b-c808-4bd1-b533-0e397028f3ab/5ca56586-8ef1-4453-8676-de728d564930-master.m3u8https://video.igem.org/videos/embed/rDTkvXvDMLJe6rW143XxY8360162025-10-05T20:23:30.523ZYES2025 TeamsNOhttps://video.igem.org/w/v9aCkNijcLmF865syh2Spfhttps://video.igem.org/lazy-static/thumbnails/687f5443-2f02-4cbe-99ce-da8ecebcdb0f.jpgHKUST-GZ: From Sketch to Model: our lychee container in CAD (2025)- software: Autodesk Fusion - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/ebfce765-28a0-44f3-865e-e3a1cb0ad8f4/4394f4c9-f6b3-46e7-9b51-151daaeb8dbd-master.m3u8https://video.igem.org/videos/embed/v9aCkNijcLmF865syh2Spf20022025-10-05T20:51:48.852ZYES2025 TeamsNOhttps://video.igem.org/w/7RxB2W3RgMHc16Ndgh9PYyhttps://video.igem.org/lazy-static/thumbnails/7b6bddb8-83a0-48dc-a008-86c9cf06f816.jpgToulouse-INSA-UT: PCR Tutorial (2025) [French]PCR tutorial carried out within the framework of human practices, will be present on the human pratices pagehttps://static.igem.org/peertube/streaming-playlists/hls/3781c0dc-41a3-4cf7-9ca5-24ec0285b40c/236a6f92-a2a6-4deb-9179-2d15a6103e1b-master.m3u8https://video.igem.org/videos/embed/7RxB2W3RgMHc16Ndgh9PYy172552025-10-05T17:01:21.004ZYES2025 TeamsNOhttps://video.igem.org/w/cQNX7bB6hoMJJVbAMj8uifhttps://video.igem.org/lazy-static/thumbnails/78e604e6-0c71-4c85-b367-deb269c4d328.jpgUChicago: cRaf (2025)cRaf protein animationhttps://static.igem.org/peertube/streaming-playlists/hls/5fe52906-81ff-4b97-ae47-adb59e0f09b0/2f3a4ef6-0528-4e8f-8848-b557a6861025-master.m3u8https://video.igem.org/videos/embed/cQNX7bB6hoMJJVbAMj8uif40362025-10-05T20:36:14.131ZYES2025 TeamsNOhttps://video.igem.org/w/nr8BJFPUnJuTMi2Av1HerLhttps://video.igem.org/lazy-static/thumbnails/e4669525-7f80-421f-9f1d-2042b0e5059d.jpgUChicago: tau (2025)tau protein animationhttps://static.igem.org/peertube/streaming-playlists/hls/ad923320-ef36-44c0-8f0f-63b34d360232/d3510ba2-5311-42d9-812a-199f6559e3fd-master.m3u8https://video.igem.org/videos/embed/nr8BJFPUnJuTMi2Av1HerL20112025-10-05T20:39:35.605ZYES2025 TeamsNOhttps://video.igem.org/w/kffeNomNfBntzxYTkUPF7ohttps://video.igem.org/lazy-static/thumbnails/dd8f3be4-76d5-403d-a0c2-e97523fead40.jpgUChicago: erk_mkp1 (2025)Erk Protein Animationhttps://static.igem.org/peertube/streaming-playlists/hls/9bdad25e-769e-4eaa-bdd2-afb0734c3926/f02fd6e7-6a8f-4ebc-953c-c9a9f41789d7-master.m3u8https://video.igem.org/videos/embed/kffeNomNfBntzxYTkUPF7o20142025-10-05T20:41:42.100ZYES2025 TeamsNOhttps://video.igem.org/w/3t6fSp2F2oaDbptVMX5HCchttps://video.igem.org/lazy-static/thumbnails/075438cc-4d56-4e12-849b-f542617c2424.jpgUChicago: p53_mdm2 (2025)p53 Protein Animationhttps://static.igem.org/peertube/streaming-playlists/hls/13fa9934-7f2e-46a4-bc8f-d8562e2224e7/bf4fb52c-51a3-466c-97c7-b72c3ce29c3e-master.m3u8https://video.igem.org/videos/embed/3t6fSp2F2oaDbptVMX5HCc20152025-10-05T20:51:50.680ZYES2025 TeamsNOhttps://video.igem.org/w/76QKXrB6qieauVhCMgbtughttps://video.igem.org/lazy-static/thumbnails/741f2af5-46f2-4473-a58e-35625d2b6997.jpgSYPHU-CHINA: dry-lab (2025) [English]SYPHU-CHINA: dry-lab (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/31679952-176a-49ba-8353-1b340ed911d3/a7574b0f-6acf-4b7c-9c0f-b56bafa1619b-master.m3u8https://video.igem.org/videos/embed/76QKXrB6qieauVhCMgbtug2870432025-10-06T11:54:17.996ZYES2025 TeamsNOhttps://video.igem.org/w/pHW14XCMKpkBaG4K6a9nr1https://video.igem.org/lazy-static/thumbnails/fd59ae51-2dc2-4954-bab3-15f3667cbb28.jpgHKUST-GZ: From Sketch to Model: dataset capture shelf in CAD (2025)- software: Autodesk Fusion - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/c01cf691-7cec-4e00-a731-73d0296adece/3080e520-3727-485f-bef5-0e0c59dba858-master.m3u8https://video.igem.org/videos/embed/pHW14XCMKpkBaG4K6a9nr125032025-10-05T20:59:25.057ZYES2025 TeamsNOhttps://video.igem.org/w/21CdEch6a4SLkjCbTbS8wEhttps://video.igem.org/lazy-static/thumbnails/4ac6c78d-c230-4827-b4c2-e06394ceb9a5.jpgUChicago: pymol roll wholecraf (2025)pymol version of wholecraf protein for drylab pageshttps://static.igem.org/peertube/streaming-playlists/hls/082f757d-bd19-42d2-a971-95696c5998be/e675b38d-4e39-44b8-a630-24c7ff54524f-master.m3u8https://video.igem.org/videos/embed/21CdEch6a4SLkjCbTbS8wE5072025-10-05T21:02:33.775ZYES2025 TeamsNOhttps://video.igem.org/w/rzULADmAqAu6zdzFxsSWgKhttps://video.igem.org/lazy-static/thumbnails/f02140a8-6b05-49e1-ac79-3076a83a3a4e.jpgSYPHU-CHINA: Entrepreneurship (2025) [English]SYPHU-CHINA: Entrepreneurship (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/cf3087e9-d2d1-4d79-b0d1-d7b4bd96ff39/6775516d-6e4e-431f-ae14-4546b758b73c-master.m3u8https://video.igem.org/videos/embed/rzULADmAqAu6zdzFxsSWgK229012025-10-06T11:53:48.562ZYES2025 TeamsNOhttps://video.igem.org/w/tNH7tsrDhTyrLiUeY9HP9Nhttps://video.igem.org/lazy-static/thumbnails/5c9567cb-412f-4676-bf73-f6ee1bb0e8fa.jpgPeking: 195939_edit (2025)Motion states of hydrogel micromotors in a simulated gastric fluid pH environment. The video is shown at 16× speed. See: [Results | Peking2025](https://2025.igem.wiki/peking/results/)https://static.igem.org/peertube/streaming-playlists/hls/e12c4b0d-28af-4c4b-bfc9-795604b9cfc2/de405a72-1dcf-481c-9b3c-71780e63a912-master.m3u8https://video.igem.org/videos/embed/tNH7tsrDhTyrLiUeY9HP9N60352025-10-05T20:14:39.729ZYES2025 TeamsNOhttps://video.igem.org/w/7EjLetcQrwGE15gQskDfxzhttps://video.igem.org/lazy-static/thumbnails/cac74938-d05c-476e-894d-265b05575cab.jpgECUST-China: model 1 (2025)ECUST-China: model 1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/35f0a879-1edc-4d6a-8ba6-ef3a834476d7/145fb1ab-431f-453d-b5a2-2d816d0e71a8-master.m3u8https://video.igem.org/videos/embed/7EjLetcQrwGE15gQskDfxz130102025-10-05T21:02:34.300ZYES2025 TeamsNOhttps://video.igem.org/w/fx1cYCvDVZcguAxeKSRS6Xhttps://video.igem.org/lazy-static/thumbnails/f557f318-706f-41e4-8361-723dec00e2a4.jpgECUST-China: model 2 (2025)ECUST-China: model 2 (2025)https://static.igem.org/peertube/streaming-playlists/hls/75b42017-cf3b-4c5c-bec8-f0194d2157c9/854e277a-7f33-4cd0-8b24-f5c10505e12c-master.m3u8https://video.igem.org/videos/embed/fx1cYCvDVZcguAxeKSRS6X2032025-10-05T21:04:48.868ZYES2025 TeamsNOhttps://video.igem.org/w/8LeLDnqPpsJ1LXhVisp7APhttps://video.igem.org/lazy-static/thumbnails/f01ff0ba-88db-4683-b205-ab17786283ea.jpgECUST-China: model 3 (2025)ECUST-China: model 3 (2025)https://static.igem.org/peertube/streaming-playlists/hls/3edd2eb1-93e9-47e0-a29f-a3abb62965d3/214fa05b-1302-4bb6-bf12-48958547dc92-master.m3u8https://video.igem.org/videos/embed/8LeLDnqPpsJ1LXhVisp7AP2062025-10-05T21:04:58.370ZYES2025 TeamsNOhttps://video.igem.org/w/siHd2cr6u3q9KSSJJvXQWhhttps://video.igem.org/lazy-static/thumbnails/938214e0-68af-4439-b603-bde490c52aef.jpgPeking: 200019_edit (2025)Motion states of hydrogel micromotors in a simulated gastric fluid pH environment. The video is shown at 16× speed. See: [Results | Peking2025](https://2025.igem.wiki/peking/results/)https://static.igem.org/peertube/streaming-playlists/hls/d506a4e5-2262-4bc6-8d4c-a8e4a1976c34/867efb26-9d98-4429-9172-0df2725a9888-master.m3u8https://video.igem.org/videos/embed/siHd2cr6u3q9KSSJJvXQWh150332025-10-05T20:32:17.058ZYES2025 TeamsNOhttps://video.igem.org/w/nXrqdq7jJqjoH6kNmwE75Mhttps://video.igem.org/lazy-static/thumbnails/9ec94d34-327f-4d63-8486-f19c1096f42b.jpgPeking: 200053_edit (2025)Motion states of hydrogel micromotors in a simulated gastric fluid pH environment. The video is shown at 16× speed. See: [Results | Peking2025](https://2025.igem.wiki/peking/results/)https://static.igem.org/peertube/streaming-playlists/hls/b1cd7bb8-f128-4e90-abf4-87b7923c483d/fae1a869-3137-42a8-8036-2e52901f309a-master.m3u8https://video.igem.org/videos/embed/nXrqdq7jJqjoH6kNmwE75M90262025-10-05T20:36:48.675ZYES2025 TeamsNOhttps://video.igem.org/w/7LxKMqJfmyh3xjLdfBsNS5https://video.igem.org/lazy-static/thumbnails/46bf8a34-c9cf-4351-b102-ff0a7b1c225f.jpgTU-Delft: MS2 hexamer VMD 1 (2025)MS2 hexamer MD trajectory visualized with VMD. Version 1. https://2025.igem.wiki/tu-delft/ https://static.igem.org/peertube/streaming-playlists/hls/36cf20a2-a728-4409-a29a-cfa81bc860d0/a44d5252-050b-45d0-9d92-1324fc6bd920-master.m3u8https://video.igem.org/videos/embed/7LxKMqJfmyh3xjLdfBsNS520022025-10-05T17:01:21.271ZYES2025 TeamsNOhttps://video.igem.org/w/swT4hnnR8EowuVKSQCoptbhttps://video.igem.org/lazy-static/thumbnails/9da7f63a-82a5-4383-bb91-2bef1559f83e.jpgGU-Frankfurt: Molecular Dynamics (2025)Molecular Dynamics simulation of pOBP with 1-octen-3-ol. https://2025.igem.wiki/gu-frankfurt/https://static.igem.org/peertube/streaming-playlists/hls/d6dd620c-5e57-4972-8002-3aeed3080914/898cfee9-296c-4255-b938-746bf6125342-master.m3u8https://video.igem.org/videos/embed/swT4hnnR8EowuVKSQCoptb67002025-10-05T20:19:31.793ZYES2025 TeamsNOhttps://video.igem.org/w/ciWKP9BiXgLBoyT8b8M77Xhttps://video.igem.org/lazy-static/thumbnails/d117436d-d57e-4843-8ca0-a40821c65864.jpgBarcelona-UB: Software overview (2025)Software overview https://2025.igem.wiki/barcelona-ubhttps://static.igem.org/peertube/streaming-playlists/hls/5b95e9df-2129-499e-89c8-fc1c81841863/65bb501b-150a-450e-bc1a-e01bfd1338c4-master.m3u8https://video.igem.org/videos/embed/ciWKP9BiXgLBoyT8b8M77X340562025-10-05T20:33:05.634ZYES2025 TeamsNOhttps://video.igem.org/w/rmszejmoRgAQ1JtVmNBus8https://video.igem.org/lazy-static/thumbnails/e1968094-ebff-45d1-ab40-43b2004e0bbe.jpgUESTC-China: gameshow (2025) [Chinese]UESTC-China: gameshow (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/cd4fb7d1-dd02-4319-b0a5-da08d26e6373/c9c40855-16c7-4daa-9ac2-954f25b73301-master.m3u8https://video.igem.org/videos/embed/rmszejmoRgAQ1JtVmNBus83990132025-10-05T20:15:45.662ZYES2025 TeamsNOhttps://video.igem.org/w/d1RK4Rcwb5SSqNoFwRSjp4https://video.igem.org/lazy-static/thumbnails/58de7fb8-bcff-460a-a3dc-1c0bb8b896ec.jpgEPFL: Fiji Demo for Rhodamine Fluorescence Analysis (2025)This short screen recording demonstrates the analysis of a fluroscent microscopy by a Fiji macro designed for this task. The software first performs segmentation and defines ROIs, then measures fluorescence signal in each surface and collects the data into a .csv file.https://static.igem.org/peertube/streaming-playlists/hls/614c519f-6f1c-446b-958f-6118d0346721/61755653-46c1-4817-9226-7ac88cfeef58-master.m3u8https://video.igem.org/videos/embed/d1RK4Rcwb5SSqNoFwRSjp47032025-10-05T17:12:12.209ZYES2025 TeamsNOhttps://video.igem.org/w/aJYRhGBASdyUDkKPEw9jNthttps://video.igem.org/lazy-static/thumbnails/8a47bc4d-01d0-40f1-8c88-b813e92de40d.jpgBNDS-China: Intelligent Cat Litter Box 3D Model (2025)This short demo showcases our project hardware, an intelligent cat litter box. Both the 3D model and the video were created by Jessica Xu, a member of BNDS-China 2025. Here is our wiki link: https://2025.igem.wiki/bnds-china/https://static.igem.org/peertube/streaming-playlists/hls/4ee2856d-f450-4c72-ac80-5d8c146c942f/762d23d7-5e6b-4bf6-a8de-136ae600b3db-master.m3u8https://video.igem.org/videos/embed/aJYRhGBASdyUDkKPEw9jNt70132025-10-05T17:53:35.046ZYES2025 TeamsNOhttps://video.igem.org/w/a8xxAZJtDcpYT8focrzdrjhttps://video.igem.org/lazy-static/thumbnails/4c1618c3-f735-4f33-b361-947008db2b1c.jpgMcGill: bond_cleavage (2025)Cleaving the bond formed by Cohera! https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/49efe501-a641-4485-8825-9b9807277084/87181865-d34a-4e6a-9422-aed9d83c1a38-master.m3u8https://video.igem.org/videos/embed/a8xxAZJtDcpYT8focrzdrj10002025-10-05T20:40:49.143ZTEVAdhesionMcgillCoheraYES2025 TeamsNOhttps://video.igem.org/w/e4YDK61UGS8jf1wY9mXJZ5https://video.igem.org/lazy-static/thumbnails/4bbae269-ed74-4369-aaa6-e324739a9bc6.jpgJGU-Mainz: iGEM Mainz Intro (2025)Landing page introduction animation. Get more information on our Wiki: https://2025.igem.wiki/jgu-mainz/https://static.igem.org/peertube/streaming-playlists/hls/69d4f236-c698-479e-9035-f1279a4deaae/806996c5-fe83-4273-b012-5aa343ec0fee-master.m3u8https://video.igem.org/videos/embed/e4YDK61UGS8jf1wY9mXJZ53032025-10-05T20:32:32.851ZLanding PageAnimationYES2025 TeamsNOhttps://video.igem.org/w/1qPCASgH2yTMFTPtihRyUVhttps://video.igem.org/lazy-static/thumbnails/236c234e-573e-4277-8a33-413bcc3aa739.jpgMcGill: home_diversity (2025)Updated homepage animation for McGill iGEM's Cohera. https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/03773443-d763-473b-9f26-882026771e05/3a79b0e3-7982-47f3-bba9-3fb38f86e106-master.m3u8https://video.igem.org/videos/embed/1qPCASgH2yTMFTPtihRyUV50852025-10-05T20:41:53.662ZADhesionMcGillCoheraYES2025 TeamsNOhttps://video.igem.org/w/2fZ2XWP5FomLAL8sUxcTyJhttps://video.igem.org/lazy-static/thumbnails/0070109f-f84b-481f-9c2e-37596e780cd8.jpgJGU-Mainz: Pyricloning Animation (2025)Animation of our cloning strategy, developed during the iGEM competition. Get more information on our Wiki: https://2025.igem.wiki/jgu-mainz/https://static.igem.org/peertube/streaming-playlists/hls/0a30b326-e77f-4dd2-976e-89121e283abe/9947779f-1f1b-4d86-ab68-3f7219c919f9-master.m3u8https://video.igem.org/videos/embed/2fZ2XWP5FomLAL8sUxcTyJ17002025-10-05T20:42:31.183ZAnimationCloningYES2025 TeamsNOhttps://video.igem.org/w/4tm9oenSXfbSxPfpLQ9YAEhttps://video.igem.org/lazy-static/thumbnails/8039e767-6bd2-41fe-a521-ca064fa5f5fa.jpgJGU-Mainz: Pyricloning 2 (2025)Animation of our cloning strategy developed during the iGEM competition. Different animation speed. Get more information on our Wiki: https://2025.igem.wiki/jgu-mainz/https://static.igem.org/peertube/streaming-playlists/hls/1c1ce98b-6908-442a-9304-dc82c5c1533a/ce362b72-5c81-49e0-bf5f-1fcb88b96ae3-master.m3u8https://video.igem.org/videos/embed/4tm9oenSXfbSxPfpLQ9YAE1401132025-10-05T21:00:31.613ZAnimationCloningYES2025 TeamsNOhttps://video.igem.org/w/5LZWKQokGY7sKMjVhdftBmhttps://video.igem.org/lazy-static/thumbnails/a1d5e6a2-e601-449f-91d0-3d3f1e2dff89.jpgJGU-Mainz: Pyricon project explanation (2025)Short animated project explanation. Get more information on our Wiki: https://2025.igem.wiki/jgu-mainz/https://static.igem.org/peertube/streaming-playlists/hls/26acfd64-c224-42d6-bccc-4947db551afe/b114cf73-6494-465d-bc9b-df63f7dc6ece-master.m3u8https://video.igem.org/videos/embed/5LZWKQokGY7sKMjVhdftBm14032025-10-05T21:03:05.026ZAnimationYES2025 TeamsNOhttps://video.igem.org/w/fFTJ73Jq3VYU7NfRNA5hX7https://video.igem.org/lazy-static/thumbnails/8c7ad13a-53f7-4aea-b9b2-8ce4141181e5.jpgBNDS-China: Demonstration of the Companion Mobile App for the Intelligent Cat Litter Box (2025)This short demo showcases the companion mobile app designed for our intelligent cat litter box. The video was created by Jessica Xu from BNDS-China 2025. Here is our wiki link: https://2025.igem.wiki/bnds-china/https://static.igem.org/peertube/streaming-playlists/hls/76f1d354-a35e-4038-8021-581b0a0a757c/73a3b169-ddcf-4580-8e72-98c0c97d2bf6-master.m3u8https://video.igem.org/videos/embed/fFTJ73Jq3VYU7NfRNA5hX718052025-10-05T20:16:29.957ZYES2025 TeamsNOhttps://video.igem.org/w/pCJ3oUh1gVWRQ8d6XXp6kzhttps://video.igem.org/lazy-static/thumbnails/5c520a14-feab-47d9-bcb5-85c11869bb2a.jpgHKUST-GZ: Recognizing a lychee using our lychee industrial model with web based UI (2025) [English]HKUST-GZ: Recognizing a lychee using our lychee industrial model with web based UI (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/bf62dfaf-19fe-4fda-8cc3-dacd697dfbcb/81a4c6dd-2f47-4311-ae2f-bd137e6e342e-master.m3u8https://video.igem.org/videos/embed/pCJ3oUh1gVWRQ8d6XXp6kz320132025-10-06T10:02:11.443ZYES2025 TeamsNOhttps://video.igem.org/w/nc9QmDTUGonGX2YRVnLgpahttps://video.igem.org/lazy-static/thumbnails/c703f492-c2cc-4b0a-aee6-9399f28158c7.jpgSUSTechOCEAN: attribution (2025)SUSTechOCEAN: attribution (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/ab9e898c-ee42-45e5-80fd-691331e552eb/68120344-f719-4210-abd3-d7645592cb3d-master.m3u8https://video.igem.org/videos/embed/nc9QmDTUGonGX2YRVnLgpa5032025-10-05T18:27:23.378ZYES2025 TeamsNOhttps://video.igem.org/w/9H6RoZZStYPhPuVBzd1cgThttps://video.igem.org/lazy-static/thumbnails/eb01d92d-29bd-44ea-a717-d673750cc227.jpgTsinghua-M: oscillator-demo (2025)Video post on wiki: https://2025.igem.wiki/tsinghua-m/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/468635c6-e93d-4309-97a6-8a6db6771bc5/09030078-e473-4b87-8383-b2f7a0494741-master.m3u8https://video.igem.org/videos/embed/9H6RoZZStYPhPuVBzd1cgT50812025-10-05T18:28:16.087ZYES2025 TeamsNOhttps://video.igem.org/w/pbjeYK9G7eRnDchcBdb1Quhttps://video.igem.org/lazy-static/thumbnails/072d34ae-0f38-4d5d-a253-6a396be224db.jpgSUSTechOCEAN: contribution (2025)SUSTechOCEAN: contribution (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/bbb2de48-d916-47ce-8594-4a8f78b0c7ec/f82f57ca-f9ad-4e68-9b04-0ff3a6bad215-master.m3u8https://video.igem.org/videos/embed/pbjeYK9G7eRnDchcBdb1Qu8022025-10-05T20:16:36.482ZYES2025 TeamsNOhttps://video.igem.org/w/k1aBduiPpZmvRTsBVGaCeshttps://video.igem.org/lazy-static/thumbnails/0baa8c79-fb0b-4500-937c-dccf6f6fbd85.jpgSUSTechOCEAN: description (2025)SUSTechOCEAN: description (2025)https://static.igem.org/peertube/streaming-playlists/hls/99e38e1f-26e7-4789-ac64-5e44106ca8e4/544e9264-0d3f-419e-94af-af09a58e7868-master.m3u8https://video.igem.org/videos/embed/k1aBduiPpZmvRTsBVGaCes5042025-10-05T20:33:30.302ZYES2025 TeamsNOhttps://video.igem.org/w/5PgQVxVaQbyML9UNwSeGpBhttps://video.igem.org/lazy-static/thumbnails/3226ae08-0728-42a3-a9ef-8a6a4c7637c1.jpgSJTU-Software: Volunteer Teaching 2 (2025) [Chinese]HP Practice Exploration Activity https://2025.igem.wiki/sjtu-software/https://static.igem.org/peertube/streaming-playlists/hls/26fe4696-ae98-4f2e-b3dc-de65fd859261/abbd076a-b515-44f8-bd74-81ac099ecbef-master.m3u8https://video.igem.org/videos/embed/5PgQVxVaQbyML9UNwSeGpB330062025-10-05T20:57:47.020ZHUMAN PRACTICEYES2025 TeamsNOhttps://video.igem.org/w/ndiQeD7y6ZJ23t8yn4RxLDhttps://video.igem.org/lazy-static/thumbnails/3a964270-4ede-4810-ae2e-33437e4982d3.jpgSUSTechOCEAN: members (2025)SUSTechOCEAN: members (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/abc7d384-649e-4192-8b26-721a21db34f1/842bb806-d1b5-4fbc-8ada-651f8c1315ac-master.m3u8https://video.igem.org/videos/embed/ndiQeD7y6ZJ23t8yn4RxLD11002025-10-05T20:37:56.226ZYES2025 TeamsNOhttps://video.igem.org/w/gACdZ6Jt5Uza4DEErxGLU7https://video.igem.org/lazy-static/thumbnails/37a43bfe-d467-40ce-a0e1-e8009e72a493.jpgECUST-China: loading (2025)ECUST-China: loading (2025)https://static.igem.org/peertube/streaming-playlists/hls/7e4eb11b-f66a-4484-97c4-5622fc2fb14e/1d7dc06a-e1d7-4fc7-976f-4290f1adc49b-master.m3u8https://video.igem.org/videos/embed/gACdZ6Jt5Uza4DEErxGLU76022025-10-05T21:05:38.122ZYES2025 TeamsNOhttps://video.igem.org/w/4YtpDHTqY1XskbcKfKF7Qyhttps://video.igem.org/lazy-static/thumbnails/59815605-089b-4d8f-b61e-1e08aeb20047.jpgSUSTechOCEAN: parts (2025)SUSTechOCEAN: parts (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/202df52e-25ca-4969-a9d5-07f79b714ea0/9412bc72-e592-48eb-a4e8-e133b150b089-master.m3u8https://video.igem.org/videos/embed/4YtpDHTqY1XskbcKfKF7Qy7012025-10-05T20:40:53.993ZYES2025 TeamsNOhttps://video.igem.org/w/7GYrtFLRQcHdozjZ9T1Tp2https://video.igem.org/lazy-static/thumbnails/5c44b2aa-061f-40f8-9c71-abfe8d7ff5dc.jpgSUSTechOCEAN: engineering (2025)SUSTechOCEAN: engineering (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/364f5d5c-7cc6-4f7b-9661-2a3ab53890d3/dcf225fb-8b03-4e53-a0e0-faa16b4f7000-master.m3u8https://video.igem.org/videos/embed/7GYrtFLRQcHdozjZ9T1Tp26002025-10-05T20:43:30.108ZYES2025 TeamsNOhttps://video.igem.org/w/5xyy2PzEbsfnT2SpJqz1dNhttps://video.igem.org/lazy-static/thumbnails/927f1017-b247-4175-a181-ff8dfc8625b0.jpgSUSTechOCEAN: Integrated Human Practices (2025)SUSTechOCEAN: ihp (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/24ccac2c-a4af-4c60-a29c-a9cbfffc778e/aa0e2393-65af-482d-bb6e-34fe418bc7e8-master.m3u8https://video.igem.org/videos/embed/5xyy2PzEbsfnT2SpJqz1dN9002025-10-05T20:58:27.907ZYES2025 TeamsNOhttps://video.igem.org/w/oXGBUSSV6o78y1dmL9L7L3https://video.igem.org/lazy-static/thumbnails/e4829d73-15cc-4f54-a772-d83322e9f391.jpgSUSTechOCEAN: sustainable (2025)SUSTechOCEAN: sustainable (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/b9effd85-a8c7-49b4-adde-764196de5eb2/937cd423-fda6-4482-805d-93042a91e09f-master.m3u8https://video.igem.org/videos/embed/oXGBUSSV6o78y1dmL9L7L35012025-10-05T21:00:33.535ZYES2025 TeamsNOhttps://video.igem.org/w/5bG5VoLRS9c3G3YFwVSGJYhttps://video.igem.org/lazy-static/thumbnails/b09a0d7f-9849-4250-b523-553164ab72ca.jpgNTHU-Taiwan: garage (2025) [Chinese]Our participation in the NTHU Entrepreneurship Garage, where we introduce our innovative product concept. It includes a brief overview of its technical foundation and a market survey analysis highlighting its potential applications and target users.https://static.igem.org/peertube/streaming-playlists/hls/21e2b20c-3329-4ffb-b243-df877f7c81fc/4a6979ee-3a3c-4c7b-a137-ea7357267078-master.m3u8https://video.igem.org/videos/embed/5bG5VoLRS9c3G3YFwVSGJY298002025-10-05T19:38:42.242ZYES2025 TeamsNOhttps://video.igem.org/w/eDpurn6eE2RQEXRnv2WZLfhttps://video.igem.org/lazy-static/thumbnails/8d055caa-0aac-4b97-bfc3-fd4dba56b062.jpgSUSTechOCEAN: hardware (2025)SUSTechOCEAN: hardware (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/6e7fcc69-38e1-4712-8784-d4d8729cec6a/a67d33e7-6376-4b12-bf28-017bc16f7cf9-master.m3u8https://video.igem.org/videos/embed/eDpurn6eE2RQEXRnv2WZLf5032025-10-05T21:03:08.949ZYES2025 TeamsNOhttps://video.igem.org/w/tyWNB8WtBcAm4u8moEjLtmhttps://video.igem.org/lazy-static/thumbnails/04d141c1-eae2-4a0c-8d37-56b7daeb00c6.jpgSUSTechOCEAN: model (2025)SUSTechOCEAN: model (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/df40517f-26bc-4467-9d82-5a4c2b8e4bd2/b3b5cef2-ea66-42d2-a1fe-9072d72e80a9-master.m3u8https://video.igem.org/videos/embed/tyWNB8WtBcAm4u8moEjLtm5022025-10-05T21:04:53.813ZYES2025 TeamsNOhttps://video.igem.org/w/6UuT5m8uU4VVPQaQMDLbL4https://video.igem.org/lazy-static/thumbnails/05bf17bb-62d4-4967-b133-b95ae81080f8.jpgLambert-GA: The FantasTick Tale of Flora the Fox Audiobook (2025) [English]**The FantasTick Tale of Flora the Fox Audiobook** This video is an audiobook recording of Lambert-GA's educational children's book. The book is an engaging story meant to increase understanding and prevention of Lyme disease in younger populations, and the video is the PDF of the book overlayed with the voices of various team members reading out the script. Lambert-GA Wiki: https://2025.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/2fd22aea-b1db-4b53-858f-f50efc2d2933/6fa5c59b-67e2-456e-98a6-c06b7c4609e3-master.m3u8https://video.igem.org/videos/embed/6UuT5m8uU4VVPQaQMDLbL4308092025-10-05T20:00:47.264ZAudiobookprevention and awarenessLyme diseasechildreneducationalYES2025 TeamsNOhttps://video.igem.org/w/wovoHFHK3o1NGGago6GRLQhttps://video.igem.org/lazy-static/thumbnails/8a7d145a-5a1a-4ffb-bb1f-32e6b4d0102a.jpgIISER Berhampur: Unboxing of DISTRIBUTION KIT (2025)This video is a representation of the unboxing of the distribution kit sent by iGEM HQ to Team POSEIDON, IISER Berhampur. -- Wiki link: https://2025.igem.wiki/iiser-berhampur/ -- Credit, Copyright & Creation Information : Background music - Capcut free to use music. https://static.igem.org/peertube/streaming-playlists/hls/f616a2d2-2c27-422b-87a2-415b11906d9c/1bc7f200-52fe-4cd4-8232-6a86251b9fd0-master.m3u8https://video.igem.org/videos/embed/wovoHFHK3o1NGGago6GRLQ25022025-10-05T21:10:19.003ZYES2025 TeamsNOhttps://video.igem.org/w/aT6bqjYCH53nzmWgbQM6Bzhttps://video.igem.org/lazy-static/thumbnails/b269b827-2113-4629-b97a-2a53bddb083a.jpgLYON: PFAS game construction (2025)Join us in this creative journey as we design and build The PFAS Game, a unique wooden educational toy that helps children (and adults!) learn about PFAS – the “forever chemicals” found in our environment. From cutting and assembling the wooden pieces to adding the final educational touch, this video takes you behind the scenes of sustainable craftsmanship and science education. Discover how wood, design, and learning come together to raise awareness about environmental issues while offering a fun, hands-on experience. Video use in edcation page : https://2025.igem.wiki/lyon/educationhttps://static.igem.org/peertube/streaming-playlists/hls/50045f4d-ba93-4043-85a5-0746afaff4cb/7bb6f265-a1a0-46bd-89ba-edbb684fd836-master.m3u8https://video.igem.org/videos/embed/aT6bqjYCH53nzmWgbQM6Bz49072025-10-05T20:40:44.909ZYES2025 TeamsNOhttps://video.igem.org/w/amr5xLWCF2649p1gGAi5e8https://video.igem.org/lazy-static/thumbnails/99a614cb-dcc2-4f23-922e-f515ae793b7a.jpgUZurich: STI self test - mock instructions (2025)Mock instructional video demonstrating the envisioned workflow of our self-test MVP. The product featured in this video is the Exacto® HIV self-test: https://www.hivtest-exacto.dehttps://static.igem.org/peertube/streaming-playlists/hls/4bbc9415-f1f2-4715-abd0-2ad9c499da11/e35c45a2-c273-4c12-b94f-21cae75be69a-master.m3u8https://video.igem.org/videos/embed/amr5xLWCF2649p1gGAi5e8800112025-10-05T21:07:04.211ZYES2025 TeamsNOhttps://video.igem.org/w/2CukfjgEuHQo3xw8Ac71sUhttps://video.igem.org/lazy-static/thumbnails/8e1e347d-4911-473b-a87b-a4d502a12ff9.jpgTabor: Seawolves: A Novel Solution to Marine Nitrogen Solution (2025) [English]Our solution to marine nitrogen pollution ([Wiki](https://2025.igem.org/tabor))https://static.igem.org/peertube/streaming-playlists/hls/0d315fdf-1502-4045-8b3e-c275463f93b8/f69c03ec-c46c-4c46-a0f6-80aeda2cfe0e-master.m3u8https://video.igem.org/videos/embed/2CukfjgEuHQo3xw8Ac71sU1190242025-10-05T21:34:51.147ZYES2025 TeamsNOhttps://video.igem.org/w/749HAoUo7yRGvmdNqucXrmhttps://video.igem.org/lazy-static/thumbnails/d79a5055-9515-4385-9b68-e8efd7918aff.jpgSZU-China: How to Identify Aphids (2025) [Chinese]we made a short video to show farmers how to spot aphids—check it out [Click to view our Wiki page](https://2025.igem.wiki/szu-china/index.html)https://static.igem.org/peertube/streaming-playlists/hls/31076f75-7ef7-477f-bb61-9a7dd5725872/8bb58007-816b-434d-84aa-1925971d361d-master.m3u8https://video.igem.org/videos/embed/749HAoUo7yRGvmdNqucXrm1330102025-10-05T22:14:12.338ZYES2025 TeamsNOhttps://video.igem.org/w/vpZv746UCgVeZokdVneVYohttps://video.igem.org/lazy-static/thumbnails/626c598c-3879-47a7-ae8b-8ecc19e6f214.jpgSZU-China: reborn: i just inherited ten thousand acres of citrus orchard (2025) [Chinese]Reborn: i just inherited ten thousand acres of citrus orchard We made a cat-meme video—see if you can actually learn something from it [Click to view our Wiki page](https://2025.igem.wiki/szu-china/index.html)https://static.igem.org/peertube/streaming-playlists/hls/ee329089-25d4-4397-b75c-22aa36e8c432/58bb4b1e-b835-4202-be09-3ba9377ce80b-master.m3u8https://video.igem.org/videos/embed/vpZv746UCgVeZokdVneVYo940142025-10-05T22:22:18.586ZYES2025 TeamsNOhttps://video.igem.org/w/o5qr5gMyzzrQsFZpwRcRNVhttps://video.igem.org/lazy-static/thumbnails/bd254828-9ed1-48bd-b52e-db061a14da3e.jpgDUESSELDORF: Chemostat running (2025)Showcasing our running chemostat. https://2025.igem.wiki/duesseldorf/https://static.igem.org/peertube/streaming-playlists/hls/b2c71521-7f07-442d-b133-f809f8e2e04d/bb22502f-8180-4a26-9629-026fca822d89-master.m3u8https://video.igem.org/videos/embed/o5qr5gMyzzrQsFZpwRcRNV5072025-10-05T22:58:57.581ZYES2025 TeamsNOhttps://video.igem.org/w/pyYt2bBGGjoncEU4PQvq5Ghttps://video.igem.org/lazy-static/thumbnails/75a7b27c-af95-4d0f-ad1d-63a7e317332a.jpgUCalgary: Does Science Really Work?– Dr. Caleb Lee | Consciousness Might Be More Real Than Molecu...Welcome to the first chapter of Does Science Really Work?, a student-led podcast by the University of Calgary iGEM team. In this episode, we sit down with Dr. Caleb Lee, a professor of bioethics and philosophy, to unpack where science ends and ethics begins. We explore moral reasoning, the mystery of consciousness, and what it means to make ethical decisions when data alone isn't enough. “Does Science Really work?” comes from a familiar joke in student labs, “Ohh, science does work!”, said when an experiment finally goes right. It’s funny, but it also reflects a deeper feeling many undergrads share: that science, in our early years, often feels disconnected from real impact. We spend hours in lectures and labs, but rarely see how our knowledge applies beyond the classroom. This podcast challenges that gap. We ask questions, talk to real experts, and explore the ethical, social, and philosophical side of science to remind ourselves, and our listeners, that science isn’t just something we learn. It’s something we live, question, and shape.https://static.igem.org/peertube/streaming-playlists/hls/bedcc9c4-0f16-4897-8306-68da88109b18/f74c000a-4183-4e0b-9b05-3972426daeb5-master.m3u8https://video.igem.org/videos/embed/pyYt2bBGGjoncEU4PQvq5G4509032025-10-06T12:49:48.603ZYES2025 TeamsNOhttps://video.igem.org/w/aABui7hVPzNRr15wtmkJKehttps://video.igem.org/lazy-static/thumbnails/aaa1d4a5-3832-409a-9709-ab36cf6afb2a.jpgUCalgary: Does Science Really Work? – Dr. Mayada Shahada | Education Careers, Math, and Meaning ...What happens when math is taught with purpose? Dr. Mayada Shahada believes students succeed when they understand why they're learning, not just how. In this episode, she discusses her teaching philosophy, commutative algebra research, and outreach efforts from Bahrain to Pakistan to Calgary. “Does Science Really work?” comes from a familiar joke in student labs, “Ohh, science does work!”, said when an experiment finally goes right. It’s funny, but it also reflects a deeper feeling many undergrads share: that science, in our early years, often feels disconnected from real impact. We spend hours in lectures and labs, but rarely see how our knowledge applies beyond the classroom. This podcast challenges that gap. We ask questions, talk to real experts, and explore the ethical, social, and philosophical side of science to remind ourselves, and our listeners, that science isn’t just something we learn. It’s something we live, question, and shape. https://static.igem.org/peertube/streaming-playlists/hls/4db76802-0902-496a-b1e0-cabdfa9e434b/057bc4b7-82bf-429f-a68f-a5d98e419ccd-master.m3u8https://video.igem.org/videos/embed/aABui7hVPzNRr15wtmkJKe28720142025-10-06T14:10:40.548ZYES2025 TeamsNOhttps://video.igem.org/w/v97XzYGYz7PUZL7U3u1X4nhttps://video.igem.org/lazy-static/thumbnails/c8647379-0934-4abd-a33e-c08e88c3b7b2.jpgUCalgary: Does Science Really Work? - Dr. Kristin Baetz (Dean of Science) | What Universities Mus...Dean Dr. Kristin Baetz (UCalgary) explains how hands-on research, co-ops, summer projects, and iGEM, turns classroom theory into real problem-solving. We dig into university support that actually moves the needle: lab access, mentorship, funding, and industry-style teamwork that blends science, communication, and a business lens. She’s candid about the lab reality (lots of iteration), and why perseverance and clear communication outrank almost everything for career impact. We also cover UCalgary’s push to weave entrepreneurship, networking, and universal design into science programs so more students can participate and thrive. From Calgary’s startup energy to breaking academic silos, Dr. Baetz lays out a 2030 vision where graduates leave with tools to prototype, ship, and lead, whether in research groups or new companies. “Does Science Really work?” comes from a familiar joke in student labs, “Ohh, science does work!”, said when an experiment finally goes right. It’s funny, but it also reflects a deeper feeling many undergrads share: that science, in our early years, often feels disconnected from real impact. We spend hours in lectures and labs, but rarely see how our knowledge applies beyond the classroom. This podcast challenges that gap. We ask questions, talk to real experts, and explore the ethical, social, and philosophical side of science to remind ourselves, and our listeners, that science isn’t just something we learn. It’s something we live, question, and shape.https://static.igem.org/peertube/streaming-playlists/hls/ebfb4271-f61e-49d3-97a4-ecd170f86e7f/a3735343-6bf7-4820-9799-3cc4b1cc4391-master.m3u8https://video.igem.org/videos/embed/v97XzYGYz7PUZL7U3u1X4n2270032025-10-06T14:32:11.986ZYES2025 TeamsNOhttps://video.igem.org/w/cATdfp1Ab3xNZyss8oAcNFhttps://video.igem.org/lazy-static/thumbnails/fc8db06d-63e8-4030-9d9f-cc82201b7782.jpgUCalgary: Does Science Really Work? - Steve Allan | Beyond the Bench, Into the City (2025) [Engl...Steve Allen joins us to explore how science, entrepreneurship, and civic leadership intersect to solve real problems, from food security and early-childhood literacy to mental health, wildfire preparedness in the Bow Valley, and the infrastructure decisions that shape cities. We discuss community networks (Rotary), evidence-driven advocacy, and how students can translate lab work into public good through partnerships, persistence, and clear communication. You’ll hear lessons from Calgary’s innovation story: connecting business leaders with founders; engaging government; measuring what matters in energy and climate; investing in community sport and health; and building the habits of curiosity and service. Practical takeaways for students and teams: network deliberately, say yes to opportunities, get involved locally, and use science to ship solutions. “Does Science Really work?” comes from a familiar joke in student labs, “Ohh, science does work!”, said when an experiment finally goes right. It’s funny, but it also reflects a deeper feeling many undergrads share: that science, in our early years, often feels disconnected from real impact. We spend hours in lectures and labs, but rarely see how our knowledge applies beyond the classroom. This podcast challenges that gap. We ask questions, talk to real experts, and explore the ethical, social, and philosophical side of science to remind ourselves, and our listeners, that science isn’t just something we learn. It’s something we live, question, and shape.https://static.igem.org/peertube/streaming-playlists/hls/5df35f9a-5310-4d35-8666-6f26134ed8af/c428c349-eb45-4ecd-b603-6d478d25e199-master.m3u8https://video.igem.org/videos/embed/cATdfp1Ab3xNZyss8oAcNF4022012025-10-06T15:18:13.740ZYES2025 TeamsNOhttps://video.igem.org/w/ucVJRLYToooycqpviaKxqdhttps://video.igem.org/lazy-static/thumbnails/d821dc5e-00c0-405e-a860-c04e67d774ac.jpgUCalgary: Does Science Really Work? - Dr. Hanan Bassyouni | Hormones, Humanity & How We Cope (20...In this uplifting episode of Science Really Works (UCalgary iGEM), we sit down with Dr. Hanan Bassyouni, an endocrinologist, award-winning clinical associate professor, and co-author of an endocrinology textbook, for a candid conversation about medicine, mentorship, and meaning. Dr. Bassyouni shares her winding path into med school (hello, rejection letters), the mentors who changed her life, and why she chose endocrinology for its puzzle-solving and people-first care. We unpack what hormones actually do (beyond thyroid myths), why diabetes, blood pressure, and cholesterol deserve routine attention, and how chronic stress shows up in our bodies, especially for women juggling careers, caregiving, and expectations. Dr. Bassyouni speaks openly about imperfection in medicine, mental health, and the power of vulnerability, plus practical strategies for balance: prioritization, delegation, saying no, and building a village. For students and early-career listeners, you’ll get concrete advice on resilience, finding mentors, separating effort from outcome, and aiming to be your best, not the best. “Does Science Really work?” comes from a familiar joke in student labs, “Ohh, science does work!”, said when an experiment finally goes right. It’s funny, but it also reflects a deeper feeling many undergrads share: that science, in our early years, often feels disconnected from real impact. We spend hours in lectures and labs, but rarely see how our knowledge applies beyond the classroom. This podcast challenges that gap. We ask questions, talk to real experts, and explore the ethical, social, and philosophical side of science to remind ourselves, and our listeners, that science isn’t just something we learn. It’s something we live, question, and shape.https://static.igem.org/peertube/streaming-playlists/hls/e46a2e86-d305-4c6a-9a69-7d314aee1380/af6e0c19-d839-47ca-97d8-3473e9da62c3-master.m3u8https://video.igem.org/videos/embed/ucVJRLYToooycqpviaKxqd4257082025-10-06T15:33:24.759ZYES2025 TeamsNOhttps://video.igem.org/w/1fh2Qma3TwMNwnmxPFUmUVhttps://video.igem.org/lazy-static/thumbnails/6b68c899-ca8a-44a0-b8b1-e76921f2135c.jpgUCalgary: Does Science Really Work? - Dr. Brij Karmur | Scalpels & Algorithms_ Inside Modern Neu...How real is neurosurgery compared to TV? In this episode of Science Really Works (UCalgary iGEM), we sit down with Dr. Brij Karmur, a neurosurgery resident pursuing a PhD in epidemiology, to unpack life in one of medicine’s most demanding fields. From 5:30 a.m. rounds to 26-hour call shifts, Bridge shares the gritty day-to-day, the “why” that keeps him going, and the moments that make it all worth it (like turning a near-fatal hydrocephalus crisis around in minutes). We also dive into the future of brain care: AI models to read MRI signals and predict meningioma behavior, endoscopic skull-base surgery through the nose, surgical robotics (and how it actually works), regenerative medicine for spinal cord injury, and what Neuralink-style implants can, and can’t, do. Along the way, Brij tackles ethics (AI accountability in the OR), coping with complications, and practical advice for students aiming at hard paths, whether in medicine, research, or startups. “Does Science Really work?” comes from a familiar joke in student labs, “Ohh, science does work!”, said when an experiment finally goes right. It’s funny, but it also reflects a deeper feeling many undergrads share: that science, in our early years, often feels disconnected from real impact. We spend hours in lectures and labs, but rarely see how our knowledge applies beyond the classroom. This podcast challenges that gap. We ask questions, talk to real experts, and explore the ethical, social, and philosophical side of science to remind ourselves, and our listeners, that science isn’t just something we learn. It’s something we live, question, and shape.https://static.igem.org/peertube/streaming-playlists/hls/01fe4ae8-ac24-471e-ab0f-7671ac3dcd7d/4bad95f2-2ead-40cc-8399-9bed457b9a35-master.m3u8https://video.igem.org/videos/embed/1fh2Qma3TwMNwnmxPFUmUV3892012025-10-06T15:53:05.051ZYES2025 TeamsNOhttps://video.igem.org/w/aSN7c5BCZLXiMMJmwZ7iNvhttps://video.igem.org/lazy-static/thumbnails/f57a58e3-4645-41ca-bcc9-75879b391d50.jpgHeidelberg: Wetlab Series S1E7 Sequencing (2025) [English]In this video the process and theory of Sequencing is explained. This video is part of our Wetlab Series which is integrated into our Online Learning Platform on the Wiki. Find our Wiki here: https://2025.igem.wiki/heidelberg/ https://static.igem.org/peertube/streaming-playlists/hls/4ff9d9c9-626b-43fa-8351-31fab94da92d/954a4f06-6f2f-4296-a10e-77b4e3697c72-master.m3u8https://video.igem.org/videos/embed/aSN7c5BCZLXiMMJmwZ7iNv388592025-10-06T14:13:27.014ZsequencingwetlabseriesteamigemheidelbergheidelbergYES2025 TeamsNOhttps://video.igem.org/w/99FYWH7SK3Go65MPvcRWbXhttps://video.igem.org/lazy-static/thumbnails/5d83d7a6-cf2f-4140-b88e-c8effba49359.jpgBarcelona-UB: SCR in translation (2025)Barcelona-UB: SCR in translation (2025)https://static.igem.org/peertube/streaming-playlists/hls/41ffb2f7-65c6-43ac-b36e-f0be5393e8cb/98006aba-1867-4f31-b877-457c83cbdd53-master.m3u8https://video.igem.org/videos/embed/99FYWH7SK3Go65MPvcRWbX130382025-10-06T12:36:48.983ZYES2025 TeamsNOhttps://video.igem.org/w/thhUnMDHVJSSsvYZKbfZT8https://video.igem.org/lazy-static/thumbnails/f785edd8-69c8-4e07-956d-c1b8952e0a32.jpgBarcelona-UB: TADPOLE Overview (2025) [English]Barcelona-UB: TADPOLE Overview (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/dced0f9d-c2cc-49d4-a09b-73512d543489/88266578-d517-454e-8a3d-a5c91568ce87-master.m3u8https://video.igem.org/videos/embed/thhUnMDHVJSSsvYZKbfZT834012025-10-06T13:50:01.907ZYES2025 TeamsNOhttps://video.igem.org/w/sSeD45y9hQ76x8QSzexSTThttps://video.igem.org/lazy-static/thumbnails/bbbd89d2-be96-4249-ae62-aaf6d51abd7f.jpgLambert-GA: Biotechnology Bootcamp (2025) [English]A camper submission for our student-produced biotechnology videos made during Biotechnology Bootcamp.https://static.igem.org/peertube/streaming-playlists/hls/d99132ea-ef15-41a3-a1da-e02589645c91/8533b0f4-6ebc-44ef-9835-cad048b90bf7-master.m3u8https://video.igem.org/videos/embed/sSeD45y9hQ76x8QSzexSTT720162025-10-06T12:41:35.541ZYES2025 TeamsNOhttps://video.igem.org/w/sT7nytMYqkZ9n5YrqdQwgEhttps://video.igem.org/lazy-static/thumbnails/70a5d083-4e6d-447b-9ba6-a13b03ad2b4b.jpgStony-Brook: loading screen (2025)Loading screen for 2025 Stony Brook iGEM Wikihttps://static.igem.org/peertube/streaming-playlists/hls/d9b076d2-2579-41d8-9bee-9b576e78df44/a4949f79-e43e-492e-bdcf-279f8bcf1776-master.m3u8https://video.igem.org/videos/embed/sT7nytMYqkZ9n5YrqdQwgE1002025-10-06T12:37:31.903ZYES2025 TeamsNOhttps://video.igem.org/w/9QcZFjcKqqPNfv3T66zxZnhttps://video.igem.org/lazy-static/thumbnails/a1678a77-eb20-43da-a6c1-a0e7d7d2c7b2.jpgZJU-China: lighting-control (2025)lighting-controlhttps://static.igem.org/peertube/streaming-playlists/hls/478433bb-7a3f-4ab3-b437-f22f679dbdb3/b080de67-e3a4-43c4-8575-9248bf2b769e-master.m3u8https://video.igem.org/videos/embed/9QcZFjcKqqPNfv3T66zxZn310232025-10-06T15:30:06.127ZcontroligemlightingYES2025 TeamsNOhttps://video.igem.org/w/7PZ1CeJFTqBBUEGyhqKiKxhttps://video.igem.org/lazy-static/thumbnails/389c4ce2-7572-46f5-8990-56afa45a8f16.jpgUCLouvain: Inclusive science - ADHD (2025) [English]We made a series of podcasts about inclusivity in science. Here is the one about people with ADHD.https://static.igem.org/peertube/streaming-playlists/hls/3749ec5c-80aa-418a-aa47-f4a73a949f79/c8842c11-9176-4ddb-a8e8-09b99dea79f5-master.m3u8https://video.igem.org/videos/embed/7PZ1CeJFTqBBUEGyhqKiKx1749032025-10-06T15:20:38.403ZYES2025 TeamsNOhttps://video.igem.org/w/faem657ne5CfNG6bFFTYZrhttps://video.igem.org/lazy-static/thumbnails/9e071c62-dbd7-4d75-bf89-41788c4ac40c.jpgTU-Eindhoven: CRISPR-Cast Episode 8 (2025) [English]One of the education initiatives of the TU Eindhoven team this year is an original podcast, the CRISPR Cast. To make this podcast accessible to our local community, we made our original episodes in Dutch. The last episode is on our own iGEM project and the work we've done this year. To be able to share this episode with the whole iGEM community, we've used an AI voice clone to transfer Dutch audio to English audio. We'll let you judge for yourself how good of a job this AI model did. For us, it was an important lesson into the capabilities but also incapabilities of modern-day AI services. You can find more information in our team wiki: https://2025.igem.wiki/tu-eindhoven/https://static.igem.org/peertube/streaming-playlists/hls/72a9dc32-3398-4140-9348-91024f846aab/e77236c2-ed53-4734-b59c-528a8a78021e-master.m3u8https://video.igem.org/videos/embed/faem657ne5CfNG6bFFTYZr26940122025-10-06T13:31:25.208ZAIsciencepodcastYES2025 TeamsNOhttps://video.igem.org/w/a8wieE2rQxZXHasVTecD3ehttps://video.igem.org/lazy-static/thumbnails/c45c964f-dd0d-4609-9372-a6cad907825f.jpgSquirrel-SouthEast: Second generation SOP (2025) [English]Squirrel-SouthEast: Second generation SOP (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/49ef2028-9fb1-4ddc-a45f-b185f199625d/269141ca-430e-4cd3-bada-1c2927ade941-master.m3u8https://video.igem.org/videos/embed/a8wieE2rQxZXHasVTecD3e92012025-10-06T15:51:31.316ZYES2025 TeamsNOhttps://video.igem.org/w/6kRR6NCgxi1ar8qqT7efpHhttps://video.igem.org/lazy-static/thumbnails/6f7c397a-bde2-4207-a4f4-f1bae4770e45.jpgSquirrel-SouthEast: The third generation introduction (2025) [English]Squirrel-SouthEast: The third generation introduction (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/2b438b40-f011-4970-83df-fe117ff8059f/0a117598-df91-4a81-85cd-91f7a279c505-master.m3u8https://video.igem.org/videos/embed/6kRR6NCgxi1ar8qqT7efpH108012025-10-06T15:53:11.927ZYES2025 TeamsNOhttps://video.igem.org/w/9Fe5o3jUdPG61StDTSPd6Whttps://video.igem.org/lazy-static/thumbnails/77b1fdcc-f15d-4133-bf66-5010a5aabd5b.jpgDuke: clearFoam Demonstration (2025)This video shows a demonstration of how to use the clearFoam software tool that we have developed. More information can be found at https://2025.igem.wiki/duke/software.https://static.igem.org/peertube/streaming-playlists/hls/46432ca4-6991-42b0-ac18-81cb591ee120/736d262c-e36b-4b00-8159-4e6cb7035ae6-master.m3u8https://video.igem.org/videos/embed/9Fe5o3jUdPG61StDTSPd6W1380202025-10-06T13:10:58.855ZYES2025 TeamsNOhttps://video.igem.org/w/22jxU1qoEYX3i2gpoEmV7Xhttps://video.igem.org/lazy-static/thumbnails/53f8f8ea-7703-499c-8316-535978755535.jpgSquirrel-Beijing: Surgical suture demonstration (2025) [English]Squirrel-Beijing: Surgical suture demonstration (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/08485071-ecd3-42fc-ad96-adc0f82c5987/c0b455ce-d4a5-4cda-a10d-527ab5d9de77-master.m3u8https://video.igem.org/videos/embed/22jxU1qoEYX3i2gpoEmV7X32072025-10-06T15:55:36.549ZYES2025 TeamsNOhttps://video.igem.org/w/r6Hkw5P4RPD52b3VBGiPJ2https://video.igem.org/lazy-static/thumbnails/a1b55ba7-f204-4829-949d-75dc20eb8fad.jpgUCLouvain: Inclusive science - Women in science (2025) [English]We made a series of podcasts about inclusivity in science. Here is the one about women in science.https://static.igem.org/peertube/streaming-playlists/hls/cb40a8ee-9989-468c-816b-59d4ab959b69/dc021a2e-e777-4cd5-9698-1aef63ff7501-master.m3u8https://video.igem.org/videos/embed/r6Hkw5P4RPD52b3VBGiPJ21657002025-10-06T15:36:33.038ZYES2025 TeamsNOhttps://video.igem.org/w/tUQpMbfgv7UEUYREaErV6Ghttps://video.igem.org/lazy-static/thumbnails/a3df4ae9-c0bd-4aca-a75b-6b89a8b79cd4.jpgRDFZ-CHINA: Waterproof Test&Stearic Acid Dissolution (2025)RDFZ-CHINA: Waterproof Test&Stearic Acid Dissolution (2025)https://static.igem.org/peertube/streaming-playlists/hls/e20740ea-00d6-40d8-be39-978ca072c2a6/58baab52-fe23-44b7-b129-d2e2ac8a1a1b-master.m3u8https://video.igem.org/videos/embed/tUQpMbfgv7UEUYREaErV6G63042025-10-06T15:58:44.195ZYES2025 TeamsNOhttps://video.igem.org/w/8wZ5BYapNfQ2zZ2FXvVZvKhttps://video.igem.org/lazy-static/thumbnails/1d022f13-c693-4e75-b2f2-f52282f6879e.jpgUCLouvain: Inclusive science - Pregnant scientist (2025) [English]We made a series of podcasts about inclusivity in science. Here is the one about a pregnant scientist.https://static.igem.org/peertube/streaming-playlists/hls/3d0375d6-cbfd-4e53-b2d1-883d375bf379/c52c5a48-ee94-4dc7-922c-d320365f92ff-master.m3u8https://video.igem.org/videos/embed/8wZ5BYapNfQ2zZ2FXvVZvK1223022025-10-06T15:38:14.473ZYES2025 TeamsNOhttps://video.igem.org/w/48CfjdbRsYL3nSk1Nv5NFahttps://video.igem.org/lazy-static/thumbnails/1f11c33f-83c9-4188-a7c0-2675e29eee67.jpgUCLouvain: Inclusive science - Foreign scientist (2025) [English]We made a series of podcasts about inclusivity in science. Here is the one about foreign scientist.https://static.igem.org/peertube/streaming-playlists/hls/195bf5d2-ea26-478d-af6b-ca995402cf07/51002b9a-4b44-4b40-bf9e-af0a281bec00-master.m3u8https://video.igem.org/videos/embed/48CfjdbRsYL3nSk1Nv5NFa1273042025-10-06T15:44:03.265ZYES2025 TeamsNOhttps://video.igem.org/w/pPGw7XYUqvsUZXJe3nbrTvhttps://video.igem.org/lazy-static/thumbnails/68849b06-34ec-4999-a8f6-921c13a4a37a.jpgUCLouvain: Inclusive science - Introduction (2025) [English]We made a series of podcasts about inclusivity in science.https://static.igem.org/peertube/streaming-playlists/hls/c0eb1e06-4101-445d-9827-a40a4c06928f/7374987c-d3f6-44e9-9926-e989b0d659b5-master.m3u8https://video.igem.org/videos/embed/pPGw7XYUqvsUZXJe3nbrTv148022025-10-06T15:47:45.997ZYES2025 TeamsNOhttps://video.igem.org/w/kH6eSQx4rNMAa9gV2aGdiehttps://video.igem.org/lazy-static/thumbnails/58395acc-a92f-497b-8d80-70c637fdd9db.jpgLeiden: Plasmid Isolation (2025) [English]Have you ever wondered how scientists get their hands on the plasmids we use? Now you know how! After watching this video, you will learn yourself how to make it! Video 7/7 of our educational videos series.https://static.igem.org/peertube/streaming-playlists/hls/9f9a5ba0-23c5-431e-8de3-e85f6651cdc7/14decc53-fcb3-4907-8ccb-1772875f0d60-master.m3u8https://video.igem.org/videos/embed/kH6eSQx4rNMAa9gV2aGdie260012025-10-06T19:26:20.046ZYES2025 TeamsNOhttps://video.igem.org/w/6fVDPwg2iVQWykwyHoHQAUhttps://video.igem.org/lazy-static/thumbnails/22ec808b-81b9-430c-b840-a0bc7ec17e79.jpgCornell: Education (2025)Alternative header video with text for [Education page] (https://2025.igem.wiki/cornell/education). Filming by Alvin Fang and Michael Zhong. Editing by Alvin Fang. https://static.igem.org/peertube/streaming-playlists/hls/2a932b9b-16d6-421f-be74-e561304ac310/ab601a5e-f082-4f94-8898-4d88df9b13a9-master.m3u8https://video.igem.org/videos/embed/6fVDPwg2iVQWykwyHoHQAU80722025-10-06T13:13:30.102ZYES2025 TeamsNOhttps://video.igem.org/w/cSfMjTXnq2zY1QnekKiEg3https://video.igem.org/lazy-static/thumbnails/2777fa1a-632e-4c89-8311-a1347a8b8d78.jpgCornell: Entrepreneurship (2025)Alternative header video with text for [Entrepreneurship page] (https://2025.igem.wiki/cornell/entrepreneurship). Filming by Alvin Fang and Michael Zhong. Editing by Alvin Fang.https://static.igem.org/peertube/streaming-playlists/hls/6018d2bb-45a6-4b7c-a5ad-634730e495b8/12fb2f88-c054-460f-a343-91399c0c1fef-master.m3u8https://video.igem.org/videos/embed/cSfMjTXnq2zY1QnekKiEg3801322025-10-06T13:50:35.949ZYES2025 TeamsNOhttps://video.igem.org/w/99X7p16Yv6QERpdksJXX35https://video.igem.org/lazy-static/thumbnails/b776ede5-5f14-4933-93d0-5b79164a731a.jpgAFMU-China: Description (2025)AFMU-China: Description (2025)https://static.igem.org/peertube/streaming-playlists/hls/420905b9-67ff-47fc-b804-3a2d1d33d66c/e19b43e0-d25e-4a8d-bb44-6f0e48811df0-master.m3u8https://video.igem.org/videos/embed/99X7p16Yv6QERpdksJXX35510492025-10-06T13:51:06.560ZYES2025 TeamsNOhttps://video.igem.org/w/cEDiKJrbawyfgr7YD772Dihttps://video.igem.org/lazy-static/thumbnails/c1f58a5a-c5a9-4b16-9b94-294fbba5942a.jpgIOANNINA: Plátanos Documentary (2025) [Greek]As part of our project, our team created a **documentary dedicated to the plane trees of Greece**, highlighting both their cultural and social importance as well as the threat they face from the fungus Ceratocystis platani, which causes canker stain. Plane trees are not only long-living symbols of Greek tradition but also deeply connected with local identity, especially in Epirus and Ioannina. Our short film, **PLÁTANOS** (from the greek word Platanos – plane tree), aimed to give a voice to those who hold stories, knowledge and emotions about these trees, and to share these perspectives with a broad audience. As a part of our inclusive educational outreach, we brought together experts, locals, artists and researchers. To learn more visit our [wiki](https://2025.igem.wiki/ioannina/)!https://static.igem.org/peertube/streaming-playlists/hls/5e79c77b-2768-422a-8f4a-005a57757507/8f96574d-99b2-4aef-b685-8381a788fa03-master.m3u8https://video.igem.org/videos/embed/cEDiKJrbawyfgr7YD772Di153701402025-10-06T13:37:03.854ZYES2025 TeamsNOhttps://video.igem.org/w/gqmLZV3r74JjLcfwXFKBtAhttps://video.igem.org/lazy-static/thumbnails/ec40861c-728e-4316-a85a-b641342858ee.jpgDuke: Biofilm Simulation EPS Growth without Treatment (2025)Using ClearFoam, we simulate the growth of a biofilm in the absence of RESPIRA treatment. In particular, this video shows how the biofilm's Extracellular Polymeric Substances (EPS) matrix grows over 240 hours of simulated time. Please visit the team Duke 2025 wiki (https://2025.igem.wiki/duke) to learn more about ClearFoam and RESPIRA.https://static.igem.org/peertube/streaming-playlists/hls/7cdfbbe3-c295-4540-a006-cbe91799b334/66d61d3b-d855-41f9-9cef-a32d9e1956cb-master.m3u8https://video.igem.org/videos/embed/gqmLZV3r74JjLcfwXFKBtA24052025-10-06T13:14:45.130ZsimulationbiofilmRESPIRAYES2025 TeamsNOhttps://video.igem.org/w/dmCWUExgUTBJTG1hc1p7tAhttps://video.igem.org/lazy-static/thumbnails/56d99ada-19f4-4ed8-8687-f5d29cb813d5.jpgRDFZ-CHINA: Introduction of the first-generation suppository (2025)RDFZ-CHINA: Introduction of the first-generation suppository (2025)https://static.igem.org/peertube/streaming-playlists/hls/640f4efb-9706-45e5-82fd-7b88fe654690/53586bdd-b325-41b7-8b4b-8b1378f6d2a2-master.m3u8https://video.igem.org/videos/embed/dmCWUExgUTBJTG1hc1p7tA58022025-10-06T16:00:10.448ZYES2025 TeamsNOhttps://video.igem.org/w/35pwTp2kgHpig8Z6X5qnevhttps://video.igem.org/lazy-static/thumbnails/e90abd08-4f16-4615-880e-ced2bdbf1cea.jpgAFMU-China: introduction (2025) [English]AFMU-China: introduction (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/10cfc13c-94d2-46c5-adda-f92cdfa8b323/60f97175-a9b7-461b-bd58-768a3358d937-master.m3u8https://video.igem.org/videos/embed/35pwTp2kgHpig8Z6X5qnev2080952025-10-06T14:24:10.809ZYES2025 TeamsNOhttps://video.igem.org/w/u5M1QL8jYyC15gcsURw76chttps://video.igem.org/lazy-static/thumbnails/3200ad2e-646e-4fe7-b8e0-1192e9a9cf21.jpgCornell: Education | Sciencenter Carousel 1 (2025)Clip from educational outreach event at the Ithaca Sciencenter for [Education page] (https://2025.igem.wiki/cornell/education).https://static.igem.org/peertube/streaming-playlists/hls/e36a9946-3a2f-45e6-8228-53635b5ad245/b8e90376-000c-4b52-ae8a-48e12da37f4e-master.m3u8https://video.igem.org/videos/embed/u5M1QL8jYyC15gcsURw76c5012025-10-06T14:18:50.850ZYES2025 TeamsNOhttps://video.igem.org/w/5oQCzRt9XiYc8hMQCXBLRchttps://video.igem.org/lazy-static/thumbnails/dcacfc7c-c76f-4010-ba30-5591238dbf27.jpgCornell: Education | Sciencenter Carousel 2 (2025)Clip from educational outreach event at the Ithaca Sciencenter for [Education page] (https://2025.igem.wiki/cornell/education).https://static.igem.org/peertube/streaming-playlists/hls/2394e329-2088-4554-9be4-48af7158803d/255a3679-1d9d-44e3-b0e2-8d728a481b35-master.m3u8https://video.igem.org/videos/embed/5oQCzRt9XiYc8hMQCXBLRc11012025-10-06T15:10:10.293ZYES2025 TeamsNOhttps://video.igem.org/w/1jqeViW6prxv3RDwEmNNx9https://video.igem.org/lazy-static/thumbnails/b05725bc-c69d-411e-9a52-5b51a0a3e6ae.jpgRDFZ-CHINA: Compression Test & Drop Test (2025) [English]RDFZ-CHINA: Compression Test & Drop Test (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/02925387-2e86-4098-a3a4-d8060be452b6/b4a1a0f9-b00c-435e-b498-3db0d9970754-master.m3u8https://video.igem.org/videos/embed/1jqeViW6prxv3RDwEmNNx977092025-10-07T00:36:25.831ZYES2025 TeamsNOhttps://video.igem.org/w/fLsjgeeKdLDDoErRzXMacFhttps://video.igem.org/lazy-static/thumbnails/3b113d52-49f8-41d8-94cd-9ae5036e5eda.jpgCornell: Education | Sciencenter Carousel 3 (2025)Clip from educational outreach event at the Ithaca Sciencenter for [Education page] (https://2025.igem.wiki/cornell/education).https://static.igem.org/peertube/streaming-playlists/hls/7794e25d-4550-4cba-a1f8-a6cf6b07e0c1/0edf79db-b632-4c1b-9a9d-e26e35843c0a-master.m3u8https://video.igem.org/videos/embed/fLsjgeeKdLDDoErRzXMacF7012025-10-06T15:13:16.666ZYES2025 TeamsNOhttps://video.igem.org/w/rkxeASHjxPSg3PNk33XJ8hhttps://video.igem.org/lazy-static/thumbnails/a7f45f33-ef72-4d85-b20f-f8ae136eb46f.jpgDuke: Biofilm Simulation Biomass Growth without Treatment (2025)Using ClearFoam, we simulate the growth of a biofilm in the absence of RESPIRA treatment. In particular, this video shows how the biofilm's pathogenic biomass (M) grows over 240 hours of simulated time. Please visit the team Duke 2025 wiki (https://2025.igem.wiki/duke) to learn more about ClearFoam and RESPIRA.https://static.igem.org/peertube/streaming-playlists/hls/cd2ed8da-0e6a-4feb-9e39-a00920516646/6ba84c05-8715-4380-a54a-f2f9cd607d15-master.m3u8https://video.igem.org/videos/embed/rkxeASHjxPSg3PNk33XJ8h24042025-10-06T13:50:39.647ZsimulationbiofilmbiomassRESPIRAYES2025 TeamsNOhttps://video.igem.org/w/djzeeMhnMFFXoAddaXRHB5https://video.igem.org/lazy-static/thumbnails/f35b6e59-a99f-4a63-b6a8-e94ab9ec4385.jpgIIT-ROORKEE: Orphanage Outreach (2025)To make iGEM IIT-ROORKEE's educational outreach inclusive, we extended our drawing activity beyond schools and reached the **Baal Kunj Orphanage** in Haridwar, where 78 children participated. Our goal was to make science accessible to children regardless of their educational background or resources. By starting with a creative activity and following it with visual learning, we provided a complete curiosity-to-clarity experience, first igniting interest through drawing, then satisfying it through engaging videos.https://static.igem.org/peertube/streaming-playlists/hls/63c58787-368d-4d3b-92c2-f637a291e06e/1afe58f1-306e-45d6-8527-1ebb66ba0dd8-master.m3u8https://video.igem.org/videos/embed/djzeeMhnMFFXoAddaXRHB532092025-10-06T13:36:31.383ZYES2025 TeamsNOhttps://video.igem.org/w/wTYbz76BQ5AtyMSudSJfe7https://video.igem.org/lazy-static/thumbnails/e20dd199-211f-4008-9a8b-b59fd994ad55.jpgDuke: Biofilm Simulation EPS Growth with Treatment (2025)Using ClearFoam, we simulate the growth of a biofilm with RESPIRA treatment. In particular, this video shows how the biofilm's Extracellular Polymeric Substances (EPS) matrix grows over 240 hours of simulated time. Despite the biofilm's initial EPS growth, RESPIRA degrades all pathogenic EPS within 100 hours, leaving the simulation space free of these pathogenic structures. Please visit the team Duke 2025 wiki (https://2025.igem.wiki/duke) to learn more about ClearFoam and RESPIRA.https://static.igem.org/peertube/streaming-playlists/hls/fa33b732-8105-4382-bb1d-70bf1f643b20/8b69b9fb-4a27-48ea-922a-24a03567cab1-master.m3u8https://video.igem.org/videos/embed/wTYbz76BQ5AtyMSudSJfe724072025-10-06T14:19:08.511ZsimulationbiofilmRESPIRAYES2025 TeamsNOhttps://video.igem.org/w/oHvKChAQjDhid4hsd6jRiLhttps://video.igem.org/lazy-static/thumbnails/a60985f8-8c73-4168-b63d-5acb302106a0.jpgDuke: Biofilm Simulation Biomass Growth with Treatment (2025)Using ClearFoam, we simulate the growth of a biofilm with RESPIRA treatment. In particular, this video shows how the biofilm's pathogenic biomass (M) grows over 240 hours of simulated time. Despite the biofilm's initial biomass growth, RESPIRA degrades all pathogenic biomass within 115 hours, leaving the simulation space free of these infectious bacteria. Please visit the team Duke 2025 wiki (https://2025.igem.wiki/duke) to learn more about ClearFoam and RESPIRA.https://static.igem.org/peertube/streaming-playlists/hls/b7f4e169-54eb-45d2-8ec9-f1b6f1ea1d0a/14c12d73-4add-41ae-b010-18fd5b3a6235-master.m3u8https://video.igem.org/videos/embed/oHvKChAQjDhid4hsd6jRiL24092025-10-06T15:10:10.778ZsimulationRESPIRAbiofilmYES2025 TeamsNOhttps://video.igem.org/w/qeFs6A55PZGTUq1BsXwpHXhttps://video.igem.org/lazy-static/thumbnails/fb83b319-919f-44c2-828b-1c51da44f8a8.jpgHongKong-JSS: Scratch game demo (2025)We also developed a scratch game - “DNA duo”, inspired by the classic matching game. We developed this game with our own spin. In this game, students need to match the DNA bases - AT and CG together, they select a card and match it with its respective pair until all the cards are matched. This not only makes learning fun but also provides a practical application of their knowledge. https://2025.igem.wiki/hongkong-jss/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/c4444f09-653f-4bf0-a421-597993801fdd/d1f41b6d-35c7-42ac-ad34-ebdf1f832071-master.m3u8https://video.igem.org/videos/embed/qeFs6A55PZGTUq1BsXwpHX14082025-10-06T15:10:14.665ZYES2025 TeamsNOhttps://video.igem.org/w/2jsR98ByKYLKAyr14kndbBhttps://video.igem.org/lazy-static/thumbnails/c6e00e08-8c48-4143-8069-3bd93ff44542.jpgIIT-ROORKEE: School Outreach (2025)To engage students of classes 1 to 3, iGEM IIT-ROORKEE organized a drawing competition at **ABN Senior Secondary School, Roorkee (Uttarakhand)**. The event saw enthusiastic participation from around 300 children. This activity successfully blended creativity with awareness, encouraging students to see science as both exciting and meaningful.https://static.igem.org/peertube/streaming-playlists/hls/0aad125c-6661-480c-a61f-95416dd9e4ef/5ec277f6-fa95-4450-aba4-5cf2ea6e89a4-master.m3u8https://video.igem.org/videos/embed/2jsR98ByKYLKAyr14kndbB42082025-10-06T13:51:35.694ZYES2025 TeamsNOhttps://video.igem.org/w/u7gBqD4Wpddm12o9BJtpdxhttps://video.igem.org/lazy-static/thumbnails/652affb7-d2f5-4645-9c88-a20b155be084.jpgNYCU-Formosa: HIA-podcast (2025) [English]NYCU-Formosa: HIA-podcast (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/e39ff730-42b3-47e1-b6aa-7ae5e96b96cb/f4eb4eb6-fa64-4eb8-8978-ce241f1f6afe-master.m3u8https://video.igem.org/videos/embed/u7gBqD4Wpddm12o9BJtpdx585082025-10-06T13:39:53.733ZYES2025 TeamsNOhttps://video.igem.org/w/pJi5AfCTN45BhqhYNECJL1https://video.igem.org/lazy-static/thumbnails/ae4aa32b-1dfb-4a62-a35c-a8c4d19c3832.jpgIIT-ROORKEE: Door-To-Door Outreach (2025) [Hindi]As part of our community outreach initiative, the iGEM IIT Roorkee team went door-to-door to engage with people above the age of 22, raising awareness about tuberculosis (TB) and its impact on public health. During these interactions, we also introduced our 2025 iGEM project, **AMPLify**, which focuses on innovative approaches to combating TB. The effort aimed to bridge the gap between cutting-edge research and everyday understanding, encouraging informed discussions on disease prevention, diagnosis, and treatment. Through these personal conversations, we sought to make science more approachable and empower individuals with knowledge that can contribute to healthier communities.https://static.igem.org/peertube/streaming-playlists/hls/c029f3f2-75ba-456e-82b2-e67a44d32ca0/11a9929e-167f-470a-99d1-e37aed9b7fa2-master.m3u8https://video.igem.org/videos/embed/pJi5AfCTN45BhqhYNECJL160062025-10-06T14:23:55.017ZYES2025 TeamsNOhttps://video.igem.org/w/vvgN7HHYfFkn3DRL4DMzMKhttps://video.igem.org/lazy-static/thumbnails/f24abf28-360a-46ce-9f6d-943d9f23f0fc.jpgHUST-China: Switch Bearing Physical Object (2025)HUST-China: Switch Bearing Physical Object (2025)https://static.igem.org/peertube/streaming-playlists/hls/eeef5315-7a0e-4255-8881-f6f42b8fe3b9/6bef933f-df36-4684-ada7-84747c17a299-master.m3u8https://video.igem.org/videos/embed/vvgN7HHYfFkn3DRL4DMzMK200372025-10-06T15:10:26.298ZYES2025 TeamsNOhttps://video.igem.org/w/pLNVC5DfqPEc62Avr9Y2xbhttps://video.igem.org/lazy-static/thumbnails/58105390-a8fb-4c66-9d0e-52dfd687ca1c.jpgNACIS SHANGHAI: Gene-editing Demo (2025) [Chinese]Gene-editing Demo Video of our Wave3D web platform. Checkout [our wiki](https://2025.igem.wiki/nacis-shanghai/education/#2-wave3d-web-platform--in-collaboration-with-daniel-pan-and-cynthia-shi) to see more details.https://static.igem.org/peertube/streaming-playlists/hls/c083d554-9278-4a02-bd6b-f3736a5d5b54/a7cd577c-93b2-497f-a58b-aa7adc9b733d-master.m3u8https://video.igem.org/videos/embed/pLNVC5DfqPEc62Avr9Y2xb29052025-10-06T13:51:31.171ZYES2025 TeamsNOhttps://video.igem.org/w/hguQUFsGjbknMZ3XkuHm3Thttps://video.igem.org/lazy-static/thumbnails/ca16c820-705a-474a-b089-25efcbf40707.jpgMcGill: loading_page_bounce (2025)Simple loading page animation for Cohera, on the McGill iGEM Wiki. https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/83bc2680-152d-4892-a056-4bd7c184243f/7f817614-da36-4cb9-a712-3e80f34adf05-master.m3u8https://video.igem.org/videos/embed/hguQUFsGjbknMZ3XkuHm3T8002025-10-06T15:32:47.489ZCovalentAdhesionMcgillcoheraYES2025 TeamsNOhttps://video.igem.org/w/uCPfkJVVTrF8jKbskd9wPKhttps://video.igem.org/lazy-static/thumbnails/b2d73ef6-fc2e-46d5-8cf7-4a4fd6b98345.jpgMcGill: loading_page_no_bounce (2025)A simple loading animation, smooth with no bounce, for the Cohera McGill iGEM 2025 wiki. https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/e7e3c67d-5dc5-49a6-bd95-2f80e4b66c69/e4db9ced-2069-4558-9baf-b3ee55eb3597-master.m3u8https://video.igem.org/videos/embed/uCPfkJVVTrF8jKbskd9wPK8042025-10-06T15:38:55.547ZadhesionmcgillcoheraCovalentYES2025 TeamsNOhttps://video.igem.org/w/6qpDmYhDUzddycw25nQptahttps://video.igem.org/lazy-static/thumbnails/3eea5c18-9632-4766-bfe0-13b5117333dd.jpgMcGill: bond_formation (2025)Simple Cohera bond formation animation, for the McGill iGEM 2025 Wiki. https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/2be61d71-92bf-4bb5-a075-1c3ca9c7d0f3/f0cd7c3b-bdca-4da1-bd06-ddd927ab839b-master.m3u8https://video.igem.org/videos/embed/6qpDmYhDUzddycw25nQpta10022025-10-06T15:43:23.910ZAdhesionMcGillCovalentcoheraYES2025 TeamsNOhttps://video.igem.org/w/hyr2D5tWSY6HRQ7JSUFErfhttps://video.igem.org/lazy-static/thumbnails/93bb3506-175e-4b5f-b0a4-30c9ed74c1d1.jpgECUST-China: hardware (2025) [English]ECUST-China: hardware (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/86197183-a5af-436a-bd42-24476d165128/ac12d956-08f6-4905-8f90-f42dcc518fc6-master.m3u8https://video.igem.org/videos/embed/hyr2D5tWSY6HRQ7JSUFErf117032025-10-06T15:58:53.144ZYES2025 TeamsNOhttps://video.igem.org/w/wdbG8m32Sv9x8uSHEHSk42https://video.igem.org/lazy-static/thumbnails/8f44eda8-398b-4dad-bbed-4fae7ad31e3c.jpgMcGill: bond_cleavage_freshicons (2025)McGill: bond_cleavage_freshicons (2025)https://static.igem.org/peertube/streaming-playlists/hls/f4a5ac93-16b6-4600-a516-95dacffb4ebb/e216357c-62ec-494a-b3cd-b2c3ddc06fc5-master.m3u8https://video.igem.org/videos/embed/wdbG8m32Sv9x8uSHEHSk4210012025-10-06T15:47:24.623ZcovalentadhesionmcgillcoheraYES2025 TeamsNOhttps://video.igem.org/w/k7BD7PJwR4Yrm1fAKh2y1whttps://video.igem.org/lazy-static/thumbnails/a1172eab-c9a4-488e-8344-cab0105d6aa7.jpgMcGill: stretch_animation_oscillator (2025)Oscillating version of the stretch/bond strength animation for the McGill iGEM Wiki: https://2025.igem.wiki/mcgill/https://static.igem.org/peertube/streaming-playlists/hls/9aca0fa1-f627-4750-855e-359f1afd7526/dbc264f9-eff0-44bb-b355-ab122b37fb7d-master.m3u8https://video.igem.org/videos/embed/k7BD7PJwR4Yrm1fAKh2y1w10042025-10-06T15:53:12.938ZmcgilladhesioncovalentcoheraYES2025 TeamsNOhttps://video.igem.org/w/vN7xmhDkPJmwbuFQNtVP64https://video.igem.org/lazy-static/thumbnails/5dccac89-cb2a-4c2a-b153-2d6c46dc3d82.jpgHUST-China: Switch Bearing Schematic (2025)HUST-China: Switch Bearing Schematic (2025)https://static.igem.org/peertube/streaming-playlists/hls/f14943ea-5305-4a9b-ba30-460365f635f9/42a9e9df-1b06-4c13-87b0-5d01f3afc1c0-master.m3u8https://video.igem.org/videos/embed/vN7xmhDkPJmwbuFQNtVP64200262025-10-06T15:15:20.822ZYES2025 TeamsNOhttps://video.igem.org/w/hnytwZsPjAqQcComMRBuPUhttps://video.igem.org/lazy-static/thumbnails/641b3297-1006-4ebd-b5c0-be94c7761287.jpgHUST-China: Third Vision Model (2025)HUST-China: Third Vision Model (2025)https://static.igem.org/peertube/streaming-playlists/hls/8494d9da-aedf-4385-b986-e7d499006172/5b41dda4-d272-4f3d-8243-7d6f6ba1302f-master.m3u8https://video.igem.org/videos/embed/hnytwZsPjAqQcComMRBuPU290172025-10-06T15:30:17.962ZYES2025 TeamsNOhttps://video.igem.org/w/eYN2kuk6xNA4Yapkdr2b4Phttps://video.igem.org/lazy-static/thumbnails/c32b0c61-46a2-40d7-86f5-202ea1c1c4e5.jpgWarsaw: Edu Academy Showcae (2025) [Polish]Showcase of our education platform aimed to teach high school students about the basics of synthetic biology. It presents examples of tasks that students would solve. Video is embedded on: https://2025.igem.wiki/warsaw/educationhttps://static.igem.org/peertube/streaming-playlists/hls/7134d0ff-c404-49a3-90ce-40fefa4ba5bd/dc0aca6d-91a6-48b8-84e1-3510b4c4d740-master.m3u8https://video.igem.org/videos/embed/eYN2kuk6xNA4Yapkdr2b4P350102025-10-06T13:38:21.850ZYES2025 TeamsNOhttps://video.igem.org/w/stgEhTf17kuLJiuu4Fe8Hqhttps://video.igem.org/lazy-static/thumbnails/62a817ba-53d7-4ab5-b155-5aa44d54226a.jpgMcGill: cohera_tune_oscillator (2025)Simple oscillating animation for the Dry Lab Model of McGill iGEM 2025: CoheraTune! (Wiki here: https://2025.igem.wiki/mcgill/)https://static.igem.org/peertube/streaming-playlists/hls/d65c567f-a9f4-4d41-92b0-09b215bd21b6/42550980-14a0-4cb5-9ed4-bd08974c51e9-master.m3u8https://video.igem.org/videos/embed/stgEhTf17kuLJiuu4Fe8Hq10052025-10-06T15:53:34.184ZcovalentadhesionmcgillcoheraYES2025 TeamsNOhttps://video.igem.org/w/eCRCfYef3y83wtLUXurQP4https://video.igem.org/lazy-static/thumbnails/09bc4b35-5a02-4630-9c62-dbab91310aaf.jpgTsukuba: Hardware Mixer test (2025)Mixing two types of paint to demonstrate the functionality of the homemade inverted mixer Team wiki: https://2025.igem.wiki/tsukuba/https://static.igem.org/peertube/streaming-playlists/hls/6e6c292f-590f-4496-8b0d-b7b155a95c71/52987889-e77f-413d-a43d-debdae6b082e-master.m3u8https://video.igem.org/videos/embed/eCRCfYef3y83wtLUXurQP413022025-10-06T13:39:04.036ZYES2025 TeamsNOhttps://video.igem.org/w/r6gMToUcg97ceMtEhzgxyChttps://video.igem.org/lazy-static/thumbnails/f8034a8b-fc23-4560-87a3-f493a00be82b.jpgAFMU-China: Intelligent Image Analysis System (2025) [Chinese]AFMU-China: Intelligent Image Analysis System (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/cb30eabf-8fd3-4d41-a25e-2bc6bb4eb428/490c54cb-3fb8-4144-96b3-d4b46308d57b-master.m3u8https://video.igem.org/videos/embed/r6gMToUcg97ceMtEhzgxyC35082025-10-06T15:13:59.089ZYES2025 TeamsNOhttps://video.igem.org/w/3DujSLPX9PzSaBGgmKjd62https://video.igem.org/lazy-static/thumbnails/7c77673c-a3ab-469a-be82-04c126c26192.jpgSCAU Guangzhou: wiki (2025) [Chinese]SCAU Guangzhou: wiki (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/156e40c3-6159-4bc3-8af3-889472f30693/ce630978-7482-4209-89f5-32d723133427-master.m3u8https://video.igem.org/videos/embed/3DujSLPX9PzSaBGgmKjd6281092025-10-06T13:39:00.859ZYES2025 TeamsNOhttps://video.igem.org/w/hxyB3rzSuyV8Uh4qaz9FShhttps://video.igem.org/lazy-static/thumbnails/f58e4ae3-ea6b-4c8a-b4cd-ecdf7369966b.jpgAFMU-China: Three-dimensional imaging display (2025) [Chinese]AFMU-China: Three-dimensional imaging display (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/85fa5e53-c86b-4782-8140-9d1344f5c050/f785b5c7-33b1-4002-a216-a0fd62a85a89-master.m3u8https://video.igem.org/videos/embed/hxyB3rzSuyV8Uh4qaz9FSh19092025-10-06T15:30:28.994ZYES2025 TeamsNOhttps://video.igem.org/w/k6pXKRkS7VoyyZ4nnBSTb4https://video.igem.org/lazy-static/thumbnails/80f78adc-dc28-46ac-809b-6bf3c3004a96.jpgNAWI Graz Austria: Time-lapse of Growth of Japanese Knotweed - Short version (2025)This time-lapse illustrates the rapid growth of the invasive plant **Japanese knotweed**. To highlight this phenomenon, we cultivated a plant under controlled conditions and monitored its development over time. This video shows the growth starting from day seven, when visible elongation began.https://static.igem.org/peertube/streaming-playlists/hls/9a9f1ebd-11ad-4f67-b6d4-7103e7a3c753/ed105edc-4dc5-49f5-a170-89ca9dff6efa-master.m3u8https://video.igem.org/videos/embed/k6pXKRkS7VoyyZ4nnBSTb4630132025-10-06T13:40:39.483ZYES2025 TeamsNOhttps://video.igem.org/w/fZtPkvqKUzSez6e1GPCiSMhttps://video.igem.org/lazy-static/thumbnails/5ce42fe8-0793-4b1f-bade-e9356fd761a7.jpgAFMU-China: software 2 (2025) [Chinese]AFMU-China: software 2 (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/79667a7a-e0a6-4207-82eb-9aabe7103af5/164a7e8e-ccac-4cda-bd1d-b5c5e2c14cf3-master.m3u8https://video.igem.org/videos/embed/fZtPkvqKUzSez6e1GPCiSM23032025-10-06T15:33:29.085ZYES2025 TeamsNOhttps://video.igem.org/w/4wmvG2VK12sFnDRYaPxZnUhttps://video.igem.org/lazy-static/thumbnails/2057252f-61d1-4268-8cd0-84dd9eb4d649.jpgHKUST-GZ: Introducing SynbioMCP (2025) [English]- GitHub repo: https://github.com/iGEM2025DryLab/SynbioMCP - see our wiki: https://2025.igem.wiki/hkust-gz/https://static.igem.org/peertube/streaming-playlists/hls/1c885eb7-84c9-4dbb-9245-3848940d88e2/ac72c79f-7389-4f29-8dcc-66bcaccfc8c4-master.m3u8https://video.igem.org/videos/embed/4wmvG2VK12sFnDRYaPxZnU680342025-10-06T15:48:56.504ZYES2025 TeamsNOhttps://video.igem.org/w/gzbqmmQyCrZYDo6QFspwbfhttps://video.igem.org/lazy-static/thumbnails/1a9eb30c-27c0-40d5-a69e-0f1fe5238a29.jpgTsukuba: Hardware electrophoresis test (2025)DNA markers being electrophoresed using a homemade electrophoresis device Team wiki: https://2025.igem.wiki/tsukuba/https://static.igem.org/peertube/streaming-playlists/hls/7e1b0bb7-6cdd-4f41-a92b-eb8afe6195a2/d903a7a2-2c88-4cb2-89ba-41e9cf54b547-master.m3u8https://video.igem.org/videos/embed/gzbqmmQyCrZYDo6QFspwbf10002025-10-06T13:51:52.005ZYES2025 TeamsNOhttps://video.igem.org/w/fDbYs2NXsKZchbXPtp1pArhttps://video.igem.org/lazy-static/thumbnails/efe3f8be-487d-4255-bbd9-6e7c7044f9ee.jpgNAWI Graz Austria: Time-lapse of Growth of Japanese Knotweed - Long version (2025)This time-lapse illustrates the rapid growth of the invasive plant **Japanese knotweed**. To highlight this phenomenon, we cultivated a plant under controlled conditions and monitored its development over time. This video shows the growth starting from day zero.https://static.igem.org/peertube/streaming-playlists/hls/76913926-2cfb-46ba-a51c-de6fa49c9f99/ba5031db-8a2e-4552-a45f-9c9b9157fc8e-master.m3u8https://video.igem.org/videos/embed/fDbYs2NXsKZchbXPtp1pAr96082025-10-06T14:12:52.843ZYES2025 TeamsNOhttps://video.igem.org/w/7b6LrMzkUU3qTFyHZm1HRghttps://video.igem.org/lazy-static/thumbnails/5b7cc196-83f1-4670-835e-15d81fac1e56.jpgIOANNINA: Sign language for fairytale (2025) [Greek]Sign language for our fairy tale. Wiki: https://2025.igem.wiki/ioanninahttps://static.igem.org/peertube/streaming-playlists/hls/31ffd2c1-28de-4271-a8ea-2f870fec910d/589593cf-1a50-4c28-a884-faf64a308815-master.m3u8https://video.igem.org/videos/embed/7b6LrMzkUU3qTFyHZm1HRg546022025-10-06T14:21:55.091Zfairytaleigemsign languageYES2025 TeamsNOhttps://video.igem.org/w/8WW9mRcNCEVZeCu6HBrPqJhttps://video.igem.org/lazy-static/thumbnails/18dd0149-95e8-41d5-adca-a33f2fd07bb0.jpgEPFL: Fiji Demo for Rhodamine Fluorescence Analysis (2025)Second demonstration of functioning of our Fiji macro for quantification of cell fluorescence.https://static.igem.org/peertube/streaming-playlists/hls/405b806f-b7d8-43c0-a73c-f995007c042e/a5437f5d-3288-4d34-8398-3ea4019ea883-master.m3u8https://video.igem.org/videos/embed/8WW9mRcNCEVZeCu6HBrPqJ290282025-10-06T14:14:05.956ZYES2025 TeamsNOhttps://video.igem.org/w/qP62H64KZfkGjn4TjiVMqDhttps://video.igem.org/lazy-static/thumbnails/006a4dd4-2d6f-4146-a7d1-164b841e6e6b.jpgTAU-Israel: Mechanism Description (2025) [English]A brief overview of the mechanism of TAU-Israel’s 2025 platform. visit our wiki for more: https://2025.igem.wiki/tau-israelhttps://static.igem.org/peertube/streaming-playlists/hls/c8ee6271-5209-4d6b-aca0-b43f762d21c1/3d492689-e684-498b-abe0-b95c913b10dd-master.m3u8https://video.igem.org/videos/embed/qP62H64KZfkGjn4TjiVMqD435332025-10-06T14:14:55.023Zigem2025YES2025 TeamsNOhttps://video.igem.org/w/oKiA2Ws8wY9i3nEjjUBRUhhttps://video.igem.org/lazy-static/thumbnails/d264f6b7-b759-4798-807c-db876c0ddfbd.jpgLeiden: MD simulation (2025)This video shows how our construct moved over time during the molecular dynamics simulation. https://2025.igem.wiki/leiden/https://static.igem.org/peertube/streaming-playlists/hls/b834def1-5651-4b1c-82c9-8006df3bfc34/02c04b35-12a5-4227-b280-b2f0299dc3ef-master.m3u8https://video.igem.org/videos/embed/oKiA2Ws8wY9i3nEjjUBRUh6012025-10-06T14:05:12.310ZYES2025 TeamsNOhttps://video.igem.org/w/3efWj1fgT4fLhURcWQhPc9https://video.igem.org/lazy-static/thumbnails/012c993e-ff6f-40fc-8ff5-b3b59bee121e.jpgJLU-NBBMS: What is "Cellular Lego Technigue"? (2025) [English]JLU-NBBMS: What is "Cellular Lego Technigue"? (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/120c26b5-62ad-4096-b113-032d946d9ca2/2238d9e6-410a-4888-ba4a-8bf5b4176d32-master.m3u8https://video.igem.org/videos/embed/3efWj1fgT4fLhURcWQhPc9114012025-10-06T13:47:17.643ZYES2025 TeamsNOhttps://video.igem.org/w/ky2HeaNx5xWg9txina3pGPhttps://video.igem.org/lazy-static/thumbnails/e9f41141-431e-4d6e-9cc4-9896a9a429b7.jpgLeiden: visualization glycan 3 (2025)This video shows IgG, the IgG receptor and one glycan structure that was added onto IgG for one of our models. https://2025.igem.wiki/leiden/https://static.igem.org/peertube/streaming-playlists/hls/9e567d50-2dad-44ec-a630-8b8010f2de3b/0ae4da92-8b2f-4d31-8118-70aff54954a5-master.m3u8https://video.igem.org/videos/embed/ky2HeaNx5xWg9txina3pGP4022025-10-06T14:16:23.363ZYES2025 TeamsNOhttps://video.igem.org/w/4dEBV1qYRzWkBnVBzBf5xMhttps://video.igem.org/lazy-static/thumbnails/fabe1cf2-e346-4143-afc5-6046316504e8.jpgJLU-NBBMS: DNA: Life's Puzzle Game! (2025) [English]JLU-NBBMS: DNA: Life's Puzzle Game! (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/1a102422-78e5-4c51-b238-d85afa8a3303/e51a3d04-3d16-46ac-9ce8-16890a8179e1-master.m3u8https://video.igem.org/videos/embed/4dEBV1qYRzWkBnVBzBf5xM131012025-10-06T14:24:33.431ZYES2025 TeamsNOhttps://video.igem.org/w/tQ3puZURCxiMtrUSo1xNYmhttps://video.igem.org/lazy-static/thumbnails/9c83cd1c-43ac-49cd-a1f6-9348a8b36cb0.jpgJLU-NBBMS: Smart Cells (2025) [English]JLU-NBBMS: Smart Cells (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/e15bed51-27cf-4145-919d-fcb0c1762d54/daa12547-4fa5-49d5-b623-7b94b737a0f2-master.m3u8https://video.igem.org/videos/embed/tQ3puZURCxiMtrUSo1xNYm89002025-10-06T14:32:16.267ZYES2025 TeamsNOhttps://video.igem.org/w/mX74Fhju7wpvtL3qdi2zwJhttps://video.igem.org/lazy-static/thumbnails/a5233f69-8bb9-43aa-b486-43898af84d6a.jpgLeiden: visualization glycan 1 (2025)This video shows IgG, the IgG receptor and a glycan structure added onto IgG for one of the modelling approaches (docking). https://2025.igem.wiki/leiden/https://static.igem.org/peertube/streaming-playlists/hls/a9a86ad1-1fc2-4871-a11f-074010b5f552/0ee33be6-4796-4029-9be3-7f86441f33cb-master.m3u8https://video.igem.org/videos/embed/mX74Fhju7wpvtL3qdi2zwJ4032025-10-06T14:31:40.593ZYES2025 TeamsNOhttps://video.igem.org/w/hKHvhcSsZxTHmeu7PbX94xhttps://video.igem.org/lazy-static/thumbnails/54bb0c4d-d871-42f1-95ee-590fb267ddf5.jpgLambert-GA: Therapeutic Animation (2025) [English]Lambert iGEM 2025 animation of therapeutic overview. https://2025.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/87acc767-7147-4bfc-b2f2-83cf24895005/ffbf1c64-ef85-4000-9ccd-80f5ca0f8057-master.m3u8https://video.igem.org/videos/embed/hKHvhcSsZxTHmeu7PbX94x17017182025-10-06T13:41:28.176ZYES2025 TeamsNOhttps://video.igem.org/w/uP8rRCybTpDJjCqmLPpvcDhttps://video.igem.org/lazy-static/thumbnails/a240bb4a-8edf-43ec-8ce3-088cf1341a54.jpgLeiden: visualization glycan 2 (2025)This video shows IgG, the IgG receptor and a glycan structure added onto IgG for one of the modelling approaches (docking). https://2025.igem.wiki/leiden/https://static.igem.org/peertube/streaming-playlists/hls/e9546da5-08d3-4085-987d-f77d9dbca7bf/be6210f2-72ac-4c68-89c9-b1fad715d4bc-master.m3u8https://video.igem.org/videos/embed/uP8rRCybTpDJjCqmLPpvcD40222025-10-07T07:59:23.795ZYES2025 TeamsNOhttps://video.igem.org/w/chfPBsVocy9iKZoTAErTPZhttps://video.igem.org/lazy-static/thumbnails/5980f616-7d86-4ccc-8723-4ad09097bc5f.jpgGXU-China: Lumi-Guard (2025) [English]To combat Helicobacter pylori antibiotic resistance and gastric cancer, we developed an engineered living therapeutic platform. It uses an attenuated H. pylori chassis with natural gastric targeting, integrating luminescence, quorum sensing, and bio-safety modules. Surface-loaded with Chlorin e6 (Ce6) and a lux operon, the bacteria are activated by near-infrared light to generate reactive oxygen species and blue-light phototoxicity, inducing tumor cell apoptosis. A quorum-sensing circuit triggers light emission at a high population density, activating endogenous porphyrins in wild-type H. pylori for a “bystander killing” effect, which also self-regulates the engineered population. For bio-safety, a hypoxia-responsive suicide switch ensures bacterial survival in the stomach but causes programmed death in oxygenated environments. Encapsulated in an oral liposomal delivery system, this platform offers a novel paradigm for overcoming antibiotic resistance and achieving precision gastric cancer therapy. https://static.igem.org/peertube/streaming-playlists/hls/5b598f2c-b76a-4c44-8422-266f3bf38753/0b421255-c49a-4ed6-9358-4edf98cbc4b2-master.m3u8https://video.igem.org/videos/embed/chfPBsVocy9iKZoTAErTPZ1820202025-10-06T13:47:03.108ZYES2025 TeamsNOhttps://video.igem.org/w/9qivdxgtLkcfGMvb5kdFeHhttps://video.igem.org/lazy-static/thumbnails/a4045402-bab7-4389-9491-2c538f9cb86b.jpgUCAS-China: Hardware: Protato Kit (2025)For our hardware, we developed the Protato Kit, a biological detection kit that aims to enable Protato to transition more easily from the biology lab to broader usage environments, providing low-cost, reliable experimental testing environments for users, experimenters, and developers. For detailed information, check out: [https://2025.igem.wiki/UCAS-China/hardware](https://2025.igem.wiki/UCAS-China/hardware)https://static.igem.org/peertube/streaming-playlists/hls/442dbf2f-481b-43af-a4be-44cce8e23827/54ea0a9d-84b1-4a91-8c9b-a6e9e7158768-master.m3u8https://video.igem.org/videos/embed/9qivdxgtLkcfGMvb5kdFeH860252025-10-06T14:12:30.348ZHARDWAREProtato2025UCAS-ChinaYES2025 TeamsNOhttps://video.igem.org/w/tKw4hjZ6ammoZuvLiKKNB6https://video.igem.org/lazy-static/thumbnails/1b56db7b-fea3-4a7a-a07d-76aa11a8d28e.jpgJGU-Mainz: Our solution (2025) [English]Animation for our wiki showcasing our project schematically. Get more information here: https://2025.igem.wiki/jgu-mainz/https://static.igem.org/peertube/streaming-playlists/hls/e0ba3fbb-7034-4204-9d68-93e055378bf3/81dc647b-fa17-49c4-ac51-93c9c9081d4c-master.m3u8https://video.igem.org/videos/embed/tKw4hjZ6ammoZuvLiKKNB6120702025-10-06T15:39:19.291ZAnimationYES2025 TeamsNOhttps://video.igem.org/w/kcpFjpeQkXuenoXJ7hUPRRhttps://video.igem.org/lazy-static/thumbnails/ee1ad5f8-9e41-4678-a0a7-ef0e1f52a5a1.jpgCAU-China: How to use Alphage (2025)[CAU-China] https://2025.igem.wiki/cau-china/https://static.igem.org/peertube/streaming-playlists/hls/9b756874-43ed-40ea-95ca-683d79509bc7/a8012b55-da2b-4409-8461-c20a016bd1bf-master.m3u8https://video.igem.org/videos/embed/kcpFjpeQkXuenoXJ7hUPRR430232025-10-06T14:25:55.688ZYES2025 TeamsNOhttps://video.igem.org/w/dDTaAmB9zSHseGhdQyWpS8https://video.igem.org/lazy-static/thumbnails/4f5996ca-a06b-4967-846c-b27778ca238a.jpgVilnius-Lithuania: Wiki-timelapse (2025)Video for the wiki landing pagehttps://static.igem.org/peertube/streaming-playlists/hls/6677b717-43bf-46dd-abaf-7886d139cb07/ec9e3118-35e5-469e-8f34-3382f4a8398f-master.m3u8https://video.igem.org/videos/embed/dDTaAmB9zSHseGhdQyWpS8120952025-10-06T13:41:44.430ZwikiYES2025 TeamsNOhttps://video.igem.org/w/czRzLCYoHgBVKhrh8rBn6Lhttps://video.igem.org/lazy-static/thumbnails/6063b275-8562-43c4-b605-f94f9fc0aacc.jpgNUS-Singapore: logo animation (2025)logo animation for loading page on https://2025.igem.wiki/nus-singapore/https://static.igem.org/peertube/streaming-playlists/hls/5dcea034-ee88-406d-9255-ae62dbb7bb2a/71920ca1-39eb-4866-9dcc-2208aac05ca7-master.m3u8https://video.igem.org/videos/embed/czRzLCYoHgBVKhrh8rBn6L4022025-10-06T13:41:32.790ZYES2025 TeamsNOhttps://video.igem.org/w/hyEBd3pJ9SCXc25gnRsEhUhttps://video.igem.org/lazy-static/thumbnails/8fafe3fe-2095-4fe9-86cf-949ea2a50ba8.jpgZQT-Nanjing: 1.1 Mammothedu South (2025) [Chinese]Wiki Link：https://2025.igem.wiki/zqt-nanjing/educationhttps://static.igem.org/peertube/streaming-playlists/hls/8621cfc6-b9d6-4652-ab53-153ef140a82c/61168d7f-36b1-4db4-870f-ff247cac2c11-master.m3u8https://video.igem.org/videos/embed/hyEBd3pJ9SCXc25gnRsEhU641022025-10-06T13:46:25.340ZYES2025 TeamsNOhttps://video.igem.org/w/9ABtRLy2FmLA97ptMWKrKchttps://video.igem.org/lazy-static/thumbnails/be9476ce-c3f2-4543-809d-5b07a072b5fb.jpgYAU-China: Wanted: The Green Scourge - Dead or Alive (2025)🎬 Welcome to Our iGEM Team Promotion Video! Produced by: The student members of Yau-China iGEM Wiki: https://2025.igem.wiki/yau-china/ 🔬 Project Core Our project is focused on engineering EC1000 bacteria for the highly efficient detection of Pseudomonas aeruginosa. 🎨 Creative Vision We've creatively woven in a unique blend of themes to break the mold of a typical biotech team: ⚔️ The Middle Ages ✨ Magic & Sorcery 🤠 The Wild West 🤝 Our Goal We look forward to friendly and fun exchanges with all iGEM teams around the globe!https://static.igem.org/peertube/streaming-playlists/hls/459e4352-9457-4161-95c2-a0260b36bdc5/218b4e3f-fae9-4c0c-ace6-3beeac88508a-master.m3u8https://video.igem.org/videos/embed/9ABtRLy2FmLA97ptMWKrKc1260472025-10-06T13:50:08.303ZYES2025 TeamsNOhttps://video.igem.org/w/1ovyQVnn4q5duu3fwTvQNahttps://video.igem.org/lazy-static/thumbnails/91471085-99a0-4789-bc4a-c46a2ac0d3a5.jpgLambert-GA: PDL Animation (2025)Lambert iGEM 2025 animation of proximity-dependent ligation (PDL). https://2025.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/03249573-daeb-4692-ae7a-951faf696b2d/ca19cd34-2719-4a0d-8b50-17a123b14106-master.m3u8https://video.igem.org/videos/embed/1ovyQVnn4q5duu3fwTvQNa10032025-10-06T14:25:08.199ZYES2025 TeamsNOhttps://video.igem.org/w/sfwyQ1cP43ZYaLxqnAYMaVhttps://video.igem.org/lazy-static/thumbnails/51836736-52df-4c75-bd2c-55725500b284.jpgNYCU-Formosa: blocks-assembling (2025)NYCU-Formosa: blocks-assembling (2025)https://static.igem.org/peertube/streaming-playlists/hls/d494dada-e827-46e7-bbba-ffe4c7b7a613/20e3086b-c70d-4bff-9358-8fb6df682b78-master.m3u8https://video.igem.org/videos/embed/sfwyQ1cP43ZYaLxqnAYMaV10012025-10-06T14:15:43.997ZYES2025 TeamsNOhttps://video.igem.org/w/79xhnAMF8YJ3KEH8UaU48Fhttps://video.igem.org/lazy-static/thumbnails/2ce6f73c-a0d2-44e3-8d77-0ea801f345b5.jpgLambert-GA: CRISPRi Animation (2025)Lambert iGEM 2025 animation of CRISPR-interference. https://2025.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/31c80f7d-b2f3-4255-8b50-c5b92c95a999/785055cb-e548-493d-ab6d-00f73ae534b2-master.m3u8https://video.igem.org/videos/embed/79xhnAMF8YJ3KEH8UaU48F80252025-10-06T15:13:31.438ZYES2025 TeamsNOhttps://video.igem.org/w/x1Ei5984tSorZWxxe5iNanhttps://video.igem.org/lazy-static/thumbnails/d13ac7c3-a29c-4d9e-840a-c15b369461b1.jpgOUC-Haide: Hand-eye calibration (2025)OUC-Haide: Hand-eye calibration (2025)https://static.igem.org/peertube/streaming-playlists/hls/fb22e5ef-3a8b-41ac-8070-449e8b7f83df/df687358-4e4e-412d-a751-ee8798fa3374-master.m3u8https://video.igem.org/videos/embed/x1Ei5984tSorZWxxe5iNan60102025-10-06T14:16:14.175ZYES2025 TeamsNOhttps://video.igem.org/w/o35ejVeP6jngrCf5o4x19phttps://video.igem.org/lazy-static/thumbnails/af75d64a-1165-41a2-904a-456c3ea68d4e.jpgNYCU-Formosa: att binding-2 (2025)NYCU-Formosa: att binding-2 (2025)https://static.igem.org/peertube/streaming-playlists/hls/b273250d-df9e-4c3f-84d8-b8fa5728cdaf/a603bf90-3e02-4b79-b696-504069e732c8-master.m3u8https://video.igem.org/videos/embed/o35ejVeP6jngrCf5o4x19p34002025-10-06T14:25:10.400ZYES2025 TeamsNOhttps://video.igem.org/w/kjoWhuJ92ESP13ic6i52kmhttps://video.igem.org/lazy-static/thumbnails/4250b1dd-8189-4bd5-babc-4a1a82bc694d.jpgNYCU-Formosa: efficiency-4 (2025)NYCU-Formosa: efficiency-4 (2025)https://static.igem.org/peertube/streaming-playlists/hls/9c6f283c-8a60-473d-bc4c-df958411a996/ea5a99f0-2ac3-4199-a905-1b318cbca70c-master.m3u8https://video.igem.org/videos/embed/kjoWhuJ92ESP13ic6i52km4012025-10-06T15:10:42.127ZYES2025 TeamsNOhttps://video.igem.org/w/q3yRUYt1GQPtid356PezjJhttps://video.igem.org/lazy-static/thumbnails/9aabcbb5-a221-474a-9a67-630a8e3abc1d.jpgQueens-Canada: Episode 1 - Our Project Unpacked (2025) [English]We’re cracking open QGEM’s project: MacQS, a synthetic biology-based therapeutic that helps macrophages sense and respond to biofilms. In this episode, we sit down with our director to explore how student research is rewriting the language of immunity—and what it takes to lead a team from concept to creation.https://static.igem.org/peertube/streaming-playlists/hls/c2b71101-74f4-4ac4-a630-fe31bb43f3fa/c72be9fe-28e3-4112-9492-c69db796fa86-master.m3u8https://video.igem.org/videos/embed/q3yRUYt1GQPtid356PezjJ2290062025-10-06T14:00:33.882ZYES2025 TeamsNOhttps://video.igem.org/w/ji4xgqFkPQXymrteVHgSYMhttps://video.igem.org/lazy-static/thumbnails/83da8f4b-744b-4d50-b9a8-9c4f05a93221.jpgCSU-CHINA: Lacma Mechanism (2025) [English]This video describes how our biobrick works. https://2025.igem.wiki/csu-china Production staff：Jinhui Yao, Yuheng Zhanghttps://static.igem.org/peertube/streaming-playlists/hls/9426522c-ee39-40a9-8de2-224c9cc9fdad/58bfdfc7-e885-4d75-8245-6af5d700d0a2-master.m3u8https://video.igem.org/videos/embed/ji4xgqFkPQXymrteVHgSYM11022025-10-06T14:17:07.668ZYES2025 TeamsNOhttps://video.igem.org/w/shSCia2Q85wfdB8DqJZHRyhttps://video.igem.org/lazy-static/thumbnails/93c62019-fd6c-43de-9fcc-837fd1fe0623.jpgSZU-China: hardware (2025)SZU-China: hardware video [Click to view our Wiki page](https://2025.igem.wiki/szu-china/index.html)https://static.igem.org/peertube/streaming-playlists/hls/d4e8b469-4026-4f11-8177-768f45e5f846/939c271c-323d-4179-83df-d7f308062174-master.m3u8https://video.igem.org/videos/embed/shSCia2Q85wfdB8DqJZHRy45032025-10-06T15:37:45.088ZYES2025 TeamsNOhttps://video.igem.org/w/gXHwSdivJD7nWaPd9Yks3chttps://video.igem.org/lazy-static/thumbnails/85a0f60e-0d74-4fb6-931d-25b2c33773be.jpgCSU-CHINA: lactate sensor change (2025)This video describes how our lactate-sensor changes. https://2025.igem.wiki/csu-china Production staff: Jinhui Yao, Yuheng Zhanghttps://static.igem.org/peertube/streaming-playlists/hls/81409515-62db-4abe-b532-b497f2b4a11f/de1b5424-0ea0-4d68-86a9-11b1e72f5309-master.m3u8https://video.igem.org/videos/embed/gXHwSdivJD7nWaPd9Yks3c5082025-10-06T14:26:01.409ZYES2025 TeamsNOhttps://video.igem.org/w/ikhzjhEap6keHC8mbDaXeehttps://video.igem.org/lazy-static/thumbnails/c8ed06d6-6b9d-46ed-8e1b-562399a6f19a.jpgZQT-Nanjing: 2.3 donation (2025) [Chinese]Wiki Link：https://2025.igem.wiki/zqt-nanjing/educationhttps://static.igem.org/peertube/streaming-playlists/hls/8c5cb404-1cfa-4703-b736-166147dbcd33/e5ed9271-df2f-4ee4-b6f5-c875dc0ef5f2-master.m3u8https://video.igem.org/videos/embed/ikhzjhEap6keHC8mbDaXee62032025-10-06T15:33:53.402ZYES2025 TeamsNOhttps://video.igem.org/w/gkE3pgWdN9xAeFxs8tL4Kihttps://video.igem.org/lazy-static/thumbnails/577f389a-7c26-449c-a45a-b0565e7666cd.jpgZQT-Nanjing: 3.4.3 city employees (2025) [Chinese]Wiki Link：https://2025.igem.wiki/zqt-nanjing/educationhttps://static.igem.org/peertube/streaming-playlists/hls/7c37a7c6-c120-485f-93b3-5b4cfbd5092b/99749458-0724-4d87-a559-9d728e6578d5-master.m3u8https://video.igem.org/videos/embed/gkE3pgWdN9xAeFxs8tL4Ki180012025-10-06T15:40:32.057ZYES2025 TeamsNOhttps://video.igem.org/w/iDFxKwgtK2iSwBxhUrp78Ehttps://video.igem.org/lazy-static/thumbnails/b1d5cdc4-6653-4d00-b6ee-f64106ab61e1.jpgCSU-CHINA: Ver.1 to Ver.2 (2025)This video describes how our first-generation sensors were transformed into second-generation sensors. https://2025.igem.wiki/csu-china Production staff: Jinhui Yao, Yuheng Zhanghttps://static.igem.org/peertube/streaming-playlists/hls/8eee3fa9-113e-4ed7-b56c-ebe27e40cdbc/a9fdf10f-a7a7-470c-88a7-432b8911b949-master.m3u8https://video.igem.org/videos/embed/iDFxKwgtK2iSwBxhUrp78E40102025-10-06T15:11:19.758ZYES2025 TeamsNOhttps://video.igem.org/w/3bAb4ZdX4239UCfcNSujxRhttps://video.igem.org/lazy-static/thumbnails/91226383-08b6-40fb-be75-6c093618f0c9.jpgBIT-China: blue light-controlled system (2025)[00:00-00:13] TDH3 serves as a constitutive promoter, followed by CIB1, VP16 and CRY2 gene, which express their corresponding proteins. [00:13-00:19] Under dark conditions, CRY2 binds to GALZifBs, thereby preventing the transcription of downstream T7(PM)RNAP mRNA. Consequently, the genes following the T7 promoter are also unable to be transcribed. [00:19-00:28] In the presence of blue light, CRY2 undergoes a conformational change, enabling its binding to CIB1. Simultaneously, CIB1 recruits VP16, thereby enabling the expression of the downstream T7(PM)RNAP mRNA. [00:28-00:39] The T7(PM)RNAP mRNA is translated into T7(PM)RNAP, which subsequently binds to the T7 promoter, thereby initiating the expression of downstream reporter gene eGFP. Producer: Feiya Su and Yundi Zhao Team Wiki Link: https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/11acc676-b0a4-4882-8f28-a8c6b03e43bf/ee1f96d0-b860-4b9b-a91a-a84da09c245d-master.m3u8https://video.igem.org/videos/embed/3bAb4ZdX4239UCfcNSujxR390182025-10-06T15:13:07.825ZYES2025 TeamsNOhttps://video.igem.org/w/kvRp384aZMrwLGj6GcDbAzhttps://video.igem.org/lazy-static/thumbnails/e176d14b-e623-4540-9b54-6f9265ece819.jpgBIT-China: green light-controlled system (2025)[00:00-00:03] TDH3 is a constitutive promoter, followed by the CarH gene, which expresses the CarH protein. [00:03-00:09] The CarH protein forms a tetramer and binds to the CarO site, repressing the expression of downstream genes. [00:09-00:17] Under green light, the CarH tetramer disassembles, and the repression disappears, allowing the downstream reporter gene EGFP to be expressed. Producer: Feiya Su and Yundi Zhao Team Wiki Link: https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/9e08a55d-f7a7-4f4e-b241-e62d4cc4aff5/ba603d45-de02-4ac1-b850-b096498fd2f5-master.m3u8https://video.igem.org/videos/embed/kvRp384aZMrwLGj6GcDbAz180172025-10-06T15:15:15.658ZYES2025 TeamsNOhttps://video.igem.org/w/oyDM118LUsEXc2oxqR2xWnhttps://video.igem.org/lazy-static/thumbnails/82e02b60-4aa7-46f6-8368-d1a41b4831b0.jpgCSU-CHINA: LACMA group (2025)This video describes how our third-generation lactate sensor is reconfigured. https://2025.igem.wiki/csu-china Production staff: Jinhui Yao, Yuheng Zhanghttps://static.igem.org/peertube/streaming-playlists/hls/b6b821a0-f65f-4a97-bc83-f3f06a78b8a5/7c4242f9-295d-417d-82ac-bd498614e8f7-master.m3u8https://video.igem.org/videos/embed/oyDM118LUsEXc2oxqR2xWn410242025-10-06T15:16:18.831ZYES2025 TeamsNOhttps://video.igem.org/w/oppnmqeCkmMP9b1Qozk3Ffhttps://video.igem.org/lazy-static/thumbnails/f7ef7e8b-194f-4631-bc80-16f88fa32bed.jpgBIT-China: red light-controlled system (2025)[00:00-00:08] TDH3 serves as a constitutive promoter, followed by the PhyBNT gene and the PIF3 gene, which express their corresponding proteins. [00:08-00:13] Under dark conditions, PhyBNT binds to GALZifBs, thereby preventing the transcription. [00:13-00:23] In the presence of red light, PhyBNT undergoes a conformational change. Simultaneously, the PhyBNT and PIF3 proteins form a dimer, initiating transcription, which subsequently allows the expression of the downstream reporter gene EGFP. Producer: Feiya Su and Yundi Zhao Team Wiki Link: https://2025.igem.wiki/bit-china/https://static.igem.org/peertube/streaming-playlists/hls/b56d8ef0-7844-4415-8e6b-a8987071a8f4/7390c198-1d82-4659-b348-d4e81b5d6485-master.m3u8https://video.igem.org/videos/embed/oppnmqeCkmMP9b1Qozk3Ff24082025-10-06T15:32:26.284ZYES2025 TeamsNOhttps://video.igem.org/w/qQN5e2amfCeF1GrZGdeUjChttps://video.igem.org/lazy-static/thumbnails/544e8222-57a2-43e7-8726-3d2e239bdb0c.jpgHeidelberg: PHOENICS in an Eggshell (2025) [English]This video describes our iGEM project PHOENICS in a nutshell. You can find it on our wiki: https://2025.igem.wiki/heidelberg/https://static.igem.org/peertube/streaming-playlists/hls/c92b6c14-e2ec-418e-8a9d-43b61b44b810/b832a713-71a9-436e-b374-d9116ada5a29-master.m3u8https://video.igem.org/videos/embed/qQN5e2amfCeF1GrZGdeUjC12053042025-10-06T14:07:05.914ZphoenicsteamigemheidelbergheidelbergYES2025 TeamsNOhttps://video.igem.org/w/5zcejdQRjF9HdLYDNruP7hhttps://video.igem.org/lazy-static/thumbnails/41694a3d-352c-4b98-a3e6-b02560c27597.jpgQueens-Canada: Episode 2 - Patient-Oriented Thinking with Dr. Deirdre Jenkins (2025) [English]In this episode, we sit down with Dr. Deirdre Jenkins, a board-certified hematologist and internal medicine fellow at Foothills Medical Centre in Calgary. Dr. Jenkins brings a powerful perspective on patient-centered care that transcends specialty lines. Known for taking time to truly listen and address every patient concern, she shares insights on what it means to put patients first in complex medical scenarios. Join us as we explore how her approach to care offers valuable lessons for rethinking patient relationships across all chronic conditions, including cystic fibrosis. https://static.igem.org/peertube/streaming-playlists/hls/250704fe-8798-4ccf-a795-0829b301fbf8/ce3b539f-00a1-4aef-99d8-1256d38082ef-master.m3u8https://video.igem.org/videos/embed/5zcejdQRjF9HdLYDNruP7h21730132025-10-06T14:25:34.472ZYES2025 TeamsNOhttps://video.igem.org/w/e4cArAdBcYs9Fy1oUH7v65https://video.igem.org/lazy-static/thumbnails/c602b934-1b13-4d30-947c-7728e71ddd68.jpgGU-Frankfurt: Ligand in pOBP (2025)A 50 ns simulation of a ligand in the binding pocket of pOBP highlighted are the other residues in the pocket. Wiki: https://2025.igem.wiki/gu-frankfurt/https://static.igem.org/peertube/streaming-playlists/hls/69b92dc7-e75a-41f7-86c8-6e5def9946ba/e81ee2f9-c118-4006-9121-63dc3097f515-master.m3u8https://video.igem.org/videos/embed/e4cArAdBcYs9Fy1oUH7v65330152025-10-06T14:17:56.509ZYES2025 TeamsNOhttps://video.igem.org/w/oXbnTPq7FT1JqWYJwXfNwnhttps://video.igem.org/lazy-static/thumbnails/c8abcf54-e64e-4a50-be16-c4713195c529.jpgYale: Yale-UOregon Zoom (2025) [English]Zoom audio recording between Yale and UOregon iGEM. https://2025.igem.wiki/yalehttps://static.igem.org/peertube/streaming-playlists/hls/b9dd5a6c-428c-4f60-a760-ad824c397939/567ba5e5-8ddd-4d2c-9d4c-e4a0177b97e8-master.m3u8https://video.igem.org/videos/embed/oXbnTPq7FT1JqWYJwXfNwn1895092025-10-06T15:41:04.890ZsynbioYES2025 TeamsNOhttps://video.igem.org/w/bddeWrJiuxabXBJkewA2hZhttps://video.igem.org/lazy-static/thumbnails/239554ba-f8bc-46f1-8296-f20a02f87a9c.jpgSJTU-BioX-Shanghai: 2d-cell-AD_trial2_1 (2025)SJTU-BioX-Shanghai: 2d-cell-AD_trial2_1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/52afdaee-cec7-4622-b150-58840d3bd40d/6bd07203-1dc7-4960-8218-a4601e683a93-master.m3u8https://video.igem.org/videos/embed/bddeWrJiuxabXBJkewA2hZ21062025-10-06T14:17:54.617ZYES2025 TeamsNOhttps://video.igem.org/w/5vsbDgWivYL5EECu8qbuFchttps://video.igem.org/lazy-static/thumbnails/d40b492b-e805-45dd-9533-7a3303b6caff.jpgSJTU-BioX-Shanghai: 2d-cell-Recurrence (2025)SJTU-BioX-Shanghai: 2d-cell-Recurrence (2025)https://static.igem.org/peertube/streaming-playlists/hls/24814297-54c8-46e1-a011-2dc8cbba6a41/66a08760-5662-4d18-ac0c-c52ea21f7744-master.m3u8https://video.igem.org/videos/embed/5vsbDgWivYL5EECu8qbuFc22022025-10-06T14:26:24.951ZYES2025 TeamsNOhttps://video.igem.org/w/5hciZDNXZsnxGmc2bMY5WWhttps://video.igem.org/lazy-static/thumbnails/d28db465-e8b0-4a45-b073-ebb1474eed24.jpgSJTU-BioX-Shanghai: 2d-cell-Treatment_1 (2025)SJTU-BioX-Shanghai: 2d-cell-Treatment_1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/22a76cd6-3a06-48c6-81d8-e1a9a6e3bf92/75de35f4-2359-4f61-940d-67c4c96fc363-master.m3u8https://video.igem.org/videos/embed/5hciZDNXZsnxGmc2bMY5WW40042025-10-06T15:12:12.875ZYES2025 TeamsNOhttps://video.igem.org/w/bBViPcoeCH1ternyZHrHrChttps://video.igem.org/lazy-static/thumbnails/2105bff3-67ca-4221-993e-cdcc064cf390.jpgQueens-Canada: Genes to Genius_ Student Explains SynBio in 5 Levels of Difficulty (2025) [English]Biotechnology student and QGEM member Cameron DeBellefeuille, is asked to explain synthetic biology to 5 different people: a child, a teen, a college student, a grad student, and an expert. Inspired by WIRED's 5 Levels Video Serieshttps://static.igem.org/peertube/streaming-playlists/hls/55ff452e-5138-47c9-91c6-e48a331d822a/04dbdbda-8fe0-465b-bd57-d67503c08b66-master.m3u8https://video.igem.org/videos/embed/bBViPcoeCH1ternyZHrHrC39950412025-10-06T14:53:11.293ZYES2025 TeamsNOhttps://video.igem.org/w/j8ZQicSJnD7XYiEYzs5QxGhttps://video.igem.org/lazy-static/thumbnails/a191ad21-045e-4fe9-82d3-96d95c437de1.jpgSJTU-BioX-Shanghai: 3d-AD_cytokine (2025)SJTU-BioX-Shanghai: 3d-AD_cytokine (2025)https://static.igem.org/peertube/streaming-playlists/hls/92e257ca-c6bb-46e0-a559-fa44b1ae0dce/a4ea3342-6e41-4e96-b44e-08d48b1635f9-master.m3u8https://video.igem.org/videos/embed/j8ZQicSJnD7XYiEYzs5QxG13022025-10-06T15:14:28.293ZYES2025 TeamsNOhttps://video.igem.org/w/iUzNgPYSMfPWkWfg7cuJechttps://video.igem.org/lazy-static/thumbnails/326d21ef-198d-418c-9003-2625aedeec70.jpgCornell: Hardware (2025)Alternative header video with text for [Hardware page] (https://2025.igem.wiki/cornell/hardware). Rendering and editing by Alvin Fang.https://static.igem.org/peertube/streaming-playlists/hls/9102dca5-6de8-4e3f-affc-7a9137e33d75/f844372f-3cfb-407e-a1d2-faa5413466b4-master.m3u8https://video.igem.org/videos/embed/iUzNgPYSMfPWkWfg7cuJec904502025-10-06T15:32:44.615ZYES2025 TeamsNOhttps://video.igem.org/w/eojf8YDJxKz5kQATXvWSHqhttps://video.igem.org/lazy-static/thumbnails/e0373522-f38a-4e3d-8c10-6d4ab5eca939.jpgSJTU-BioX-Shanghai: 3d-AD_toxin (2025)SJTU-BioX-Shanghai: 3d-AD_toxin (2025)https://static.igem.org/peertube/streaming-playlists/hls/6c64689c-039b-4d1e-925c-3812c55cc8ca/5baa6241-f92b-4b69-8623-a82e1edbedfd-master.m3u8https://video.igem.org/videos/embed/eojf8YDJxKz5kQATXvWSHq14042025-10-06T15:31:08.604ZYES2025 TeamsNOhttps://video.igem.org/w/n6wgovXbxZK968vcTeVoWbhttps://video.igem.org/lazy-static/thumbnails/9b9efff6-2d81-4256-8c62-44a00ba68568.jpgSJTU-BioX-Shanghai: 3d-Lesion_cytokine (2025)SJTU-BioX-Shanghai: 3d-Lesion_cytokine (2025)https://static.igem.org/peertube/streaming-playlists/hls/aad54849-8c3e-4ee2-9b30-f446a721f696/2a9acdc1-dc8a-40b2-94b5-ee64b7753bc2-master.m3u8https://video.igem.org/videos/embed/n6wgovXbxZK968vcTeVoWb12042025-10-06T15:33:56.025ZYES2025 TeamsNOhttps://video.igem.org/w/p18JJpe4acUd7H6upyfcuahttps://video.igem.org/lazy-static/thumbnails/9bedb494-8f42-4f5d-b6f4-10481de5a716.jpgSJTU-BioX-Shanghai: 3d-Lesion_toxin (2025)SJTU-BioX-Shanghai: 3d-Lesion_toxin (2025)https://static.igem.org/peertube/streaming-playlists/hls/ba46f505-95ee-4521-9290-8426417640fd/141fa68e-a203-42fe-8a9f-a76b7e255b63-master.m3u8https://video.igem.org/videos/embed/p18JJpe4acUd7H6upyfcua9042025-10-06T15:39:17.181ZYES2025 TeamsNOhttps://video.igem.org/w/3QsWjU4ZNzUKGatMDX4UWihttps://video.igem.org/lazy-static/thumbnails/ae8768bc-dca3-4800-97fc-8ed0a76db99a.jpgQueens-Canada: Step-by-Step Guide to Protein Modeling with Expasy & Swiss-Model (2025) [English]In this tutorial, join Kaden Kowalyshyn, QGEM's Dry Lab Lead, as we explore protein modeling using Expasy and Swiss Model from a nucleotide sequence. 🧬 Start with the nucleotide sequence of the protein you would like to model (such as one already on Benchling if you have projects open) 🧬 Paste it into Expasy to obtain the amino acid sequence 🧬 Finally, plug the data into Swiss-Model to visualize your protein! We use these powerful tools as part of our research to combat bacterial biofilm formation in the lungs of cystic fibrosis patients. Our work aims to advance synthetic biology solutions to tackle global issues, and we’re excited to share our approach with you. Whether you're a student, researcher, or just curious about synthetic biology, this guide will provide valuable insights into protein modelling. Don't forget to like, comment, and subscribe to follow our journey! --- 🚀 Connect with us Instagram: @queens_igem Email: qgem@engsoc.queensu.ca 🌱 Check out our podcast on Spotify QGEM Talks: The Molecular Microphonehttps://static.igem.org/peertube/streaming-playlists/hls/16f6941d-ed7a-4596-a93a-625ce4cd3e65/9d95f5b9-fed5-4a53-b837-1412a464142f-master.m3u8https://video.igem.org/videos/embed/3QsWjU4ZNzUKGatMDX4UWi1810122025-10-06T15:12:18.895ZYES2025 TeamsNOhttps://video.igem.org/w/xuhE428rQRkMfB6QpF3H7thttps://video.igem.org/lazy-static/thumbnails/0cc1d522-fdac-46f4-87e7-631d2d76893b.jpgSJTU-BioX-Shanghai: 3d-Lesion_vHH (2025)SJTU-BioX-Shanghai: 3d-Lesion_vHH (2025)https://static.igem.org/peertube/streaming-playlists/hls/fefe6381-0635-40dc-a285-f5268b460adb/85793cbf-3291-4c65-9f84-a1310339e765-master.m3u8https://video.igem.org/videos/embed/xuhE428rQRkMfB6QpF3H7t12032025-10-06T15:43:40.770ZYES2025 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TeamsNOhttps://video.igem.org/w/rQCSgL1NtpFZxe5G5Sufs8https://video.igem.org/lazy-static/thumbnails/b0f82bc5-6f49-4e32-bfd0-ebc45fde415e.jpgSJTU-BioX-Shanghai: ad2-sub_10 (2025)SJTU-BioX-Shanghai: ad2-sub_10 (2025)https://static.igem.org/peertube/streaming-playlists/hls/d13ee32c-e5d6-453f-a6a5-53fe7852c0e3/cf519140-84ad-4988-b2e7-2ce28638fa72-master.m3u8https://video.igem.org/videos/embed/rQCSgL1NtpFZxe5G5Sufs810002025-10-06T15:53:51.310ZYES2025 TeamsNOhttps://video.igem.org/w/1tSLPNzohWaFwo3zVzDryBhttps://video.igem.org/lazy-static/thumbnails/59c09ec0-e6f3-4879-b5e6-622ef7437894.jpgSJTU-BioX-Shanghai: rec-sub_3 (2025)SJTU-BioX-Shanghai: rec-sub_3 (2025)https://static.igem.org/peertube/streaming-playlists/hls/03e45f25-0760-4cdf-9057-e24b9a3a0a1f/174fc59f-3e73-4e4e-aa68-023d41a99c06-master.m3u8https://video.igem.org/videos/embed/1tSLPNzohWaFwo3zVzDryB10002025-10-07T00:36:27.401ZYES2025 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TeamsNOhttps://video.igem.org/w/aPXNn8bLBLGwYKddwi2Mq8https://video.igem.org/lazy-static/thumbnails/bab71427-f626-4ec3-b457-761b0141053c.jpgSJTU-BioX-Shanghai: tre-sub_10 (2025)SJTU-BioX-Shanghai: tre-sub_10 (2025)https://static.igem.org/peertube/streaming-playlists/hls/4f9497bc-96ba-448c-b0b5-36873eaeb1c3/5e2a007f-417d-44ef-af33-ab38957304a9-master.m3u8https://video.igem.org/videos/embed/aPXNn8bLBLGwYKddwi2Mq819002025-10-07T00:45:46.136ZYES2025 TeamsNOhttps://video.igem.org/w/1Upc9Q4utHPF6n4GS9HhG6https://video.igem.org/lazy-static/thumbnails/4678fd0e-6e14-40b7-9b9a-ce31efa5526a.jpgSJTU-BioX-Shanghai: tre-sub_12 (2025)SJTU-BioX-Shanghai: tre-sub_12 (2025)https://static.igem.org/peertube/streaming-playlists/hls/0750f802-a155-4d2a-a226-24bf41aca1fd/31864b62-dcd0-4d34-abed-a8d3b88026b3-master.m3u8https://video.igem.org/videos/embed/1Upc9Q4utHPF6n4GS9HhG619012025-10-07T00:46:30.175ZYES2025 TeamsNOhttps://video.igem.org/w/rJGYYj48uE9v6Hw9aTzgZEhttps://video.igem.org/lazy-static/thumbnails/afafb023-2559-4707-97f3-0cdd41670625.jpgKULeuven: ABM_netlogo_phyto_absent(2025)This is a recording of the full interface view of our agent based model visualised in NetLogo when there is no pathogen present (Phytophthora), showing the behaviour of the AMP secretion and random activation of the cells. This is in low dehydration conditions.https://static.igem.org/peertube/streaming-playlists/hls/d06af607-8d55-45c1-a32d-f67cc8d3ba24/0e9300d0-e3fa-4dfa-99db-871c3a6f7e04-master.m3u8https://video.igem.org/videos/embed/rJGYYj48uE9v6Hw9aTzgZE30072025-10-06T15:36:03.635ZYES2025 TeamsNOhttps://video.igem.org/w/1nqJfsfLD84mbrr4Tv9eJhhttps://video.igem.org/lazy-static/thumbnails/507ba291-c020-46b3-a2d6-a2df6c7ee7d0.jpgQueens-Canada: Episode 3 - Research Ethics with Meera Sidhu (2025) [English]In this episode, we welcome Meera Sidhu, Associate Director of Research Ethics at Queen's University. Meera provides day-to-day oversight of the research ethics office and serves as a vital bridge between Research Ethics Boards and researchers. Drawing from personal anecdotes and her experience reviewing research complaints ensuring ethical standards in studies involving human participants, she offers crucial insights into the ethical considerations that shape medical research. Join us as Meera discusses how research ethics protects patient rights, builds trust in clinical trials, and ensures that studies involving people with cystic fibrosis and other conditions are conducted with integrity and respect.https://static.igem.org/peertube/streaming-playlists/hls/02fddbcd-cd5d-41aa-8784-a8d5dcd13d98/75e21e8d-c228-44db-8428-a2fb3f6f40be-master.m3u8https://video.igem.org/videos/embed/1nqJfsfLD84mbrr4Tv9eJh2616032025-10-06T15:27:01.044ZYES2025 TeamsNOhttps://video.igem.org/w/swL4LaZTWs2W2exictMacPhttps://video.igem.org/lazy-static/thumbnails/91d94cfc-51f6-41d8-9856-70f0ff012d66.jpgNJTech-China: Automatic Sampling Analyzer Demonstration (2025) [English]This video presents the complete operational workflow of our self-developed automatic sampling analyzer, including automated sampling, sample analysis, and web-based control. It provides a clear and intuitive demonstration of the design principles and functionality of our hardware system.https://2025.igem.wiki/njtech-china/https://static.igem.org/peertube/streaming-playlists/hls/d6d912fe-36eb-44f7-88b0-a6ea67413749/e6220740-6d37-401e-9071-507d9a3bb800-master.m3u8https://video.igem.org/videos/embed/swL4LaZTWs2W2exictMacP122082025-10-06T14:11:34.551ZYES2025 TeamsNOhttps://video.igem.org/w/1okho8fxXNYzcFgmStst38https://video.igem.org/lazy-static/thumbnails/24510db7-2a44-4183-bf95-a70d7b44d574.jpgTU-Delft: MS2 chicken logo (2025)Animation of chicken taking a bit of the Snaccine logo. https://static.igem.org/peertube/streaming-playlists/hls/031e3f04-b038-4422-80d0-acb7ef8528c7/0851598f-87f4-4ff6-a1f2-23f0cbbb4de2-master.m3u8https://video.igem.org/videos/embed/1okho8fxXNYzcFgmStst384012025-10-06T14:26:33.017ZYES2025 TeamsNOhttps://video.igem.org/w/wtxy6S4sQHA6yMcHZsTVdDhttps://video.igem.org/lazy-static/thumbnails/40995ab6-d6da-4df9-bcd2-67bf35426efe.jpgCCU-Taiwan: foot-detection machine (2025) [English]The device captures images of the bottom of the feet and uploads them to Google Cloud for further analysis. The device is designed to assist in monitoring the foot health of elderly individuals. It is composed of acrylic panels, a Raspberry Pi, electrical wiring, and a USB camera. wiki : https://2025.igem.wiki/ccu-taiwan/https://static.igem.org/peertube/streaming-playlists/hls/f6caafe6-1700-4baa-acac-8acdbe3f2a49/013111b9-a3af-4aeb-baaa-53f7f2d49f4d-master.m3u8https://video.igem.org/videos/embed/wtxy6S4sQHA6yMcHZsTVdD87032025-10-06T14:18:25.882Zcloud APIremote monitoringraspberry pifoot detectionelderly careYES2025 TeamsNOhttps://video.igem.org/w/rVp99dgwA1gjmqKQhsxcvqhttps://video.igem.org/lazy-static/thumbnails/067dabee-c8fb-40e7-a28d-298d6879de73.jpgQueens-Canada: Episode 5 - Making an Impact with Dr. Stéphanie Pontier (2025) [English]In this episode, we talk with Dr. Stéphanie Pontier, PI and founder of the Outaouais iGEM team. With a PhD in biochemistry from the Université de Montréal and years of experience as an iGEM judge, Stéphanie gave us pivotal feedback at the Great Canadian Meet-Up that shaped our project direction. We discuss how iGEM is built to teach students and guide them on making a real impact in the world, and what it takes to turn scientific ideas into solutions that matter.https://static.igem.org/peertube/streaming-playlists/hls/d1e925a6-6c8c-4559-846b-9069e55f5f2e/ee714b3e-abdc-420a-a333-868435dd1917-master.m3u8https://video.igem.org/videos/embed/rVp99dgwA1gjmqKQhsxcvq2812012025-10-06T15:42:16.685ZYES2025 TeamsNOhttps://video.igem.org/w/q4rSoHpjL4G42h74kzqKe4https://video.igem.org/lazy-static/thumbnails/d14ff6a2-3371-43b8-b1ee-1074550a9ea4.jpgSJTU-Software: Technology Experience Salon (2025) [Chinese]On June 4, 2025, we conducted an engaging technology experience salon titled "AI and Healthy Living" at Wujing Town Senior University. This event is our last step of all-age synthetic biology lecture series, aimed to bridge the digital divide for seniors. Through relatable explanations, hands-on AI assistant tutorials, and discussions on synthetic biology and transgenic foods, we empowered elderly participants to embrace technology for healthier, more connected lives. Our wiki link is https://2025.igem.wiki/sjtu-software/https://static.igem.org/peertube/streaming-playlists/hls/c2d6805a-4031-43cc-bd28-7799879ecd71/9c9585a0-312c-41ac-8f3f-983a567a0407-master.m3u8https://video.igem.org/videos/embed/q4rSoHpjL4G42h74kzqKe4132022025-10-06T14:13:51.540ZYES2025 TeamsNOhttps://video.igem.org/w/aLbYiE8XcHk3g94NXTaHCJhttps://video.igem.org/lazy-static/thumbnails/ce8ed203-65a2-4e13-a57a-b094d7f3c4a4.jpgKULeuven: ABM_netlogo_phyto_absent_high_dehydration (2025)This is a recording of the full interface view of our agent based model visualised in NetLogo when there is no pathogen present (Phytophthora), showing the behaviour of the AMP secretion and random activation of the cells. This is in high dehydration conditions.https://static.igem.org/peertube/streaming-playlists/hls/4f0dbc1b-82fc-4b27-9dc3-636b98d4eb0e/4acc139e-4827-41f8-bad0-6a083a69c88b-master.m3u8https://video.igem.org/videos/embed/aLbYiE8XcHk3g94NXTaHCJ23072025-10-06T15:42:38.449ZYES2025 TeamsNOhttps://video.igem.org/w/7Q9b1BCTkoPfJnYzwefXjhhttps://video.igem.org/lazy-static/thumbnails/36f4a440-62aa-4fbb-a3cc-801649ce8b78.jpgNUS-Singapore: homepage heading (2025)The heading pic of our home page in https://2025.igem.wiki/nus-singapore/https://static.igem.org/peertube/streaming-playlists/hls/374f91c8-3973-4b81-9c7b-b010bd825ae0/eea675d1-fec0-4ddc-b405-56c85ac7a563-master.m3u8https://video.igem.org/videos/embed/7Q9b1BCTkoPfJnYzwefXjh10012025-10-06T14:18:14.553ZYES2025 TeamsNOhttps://video.igem.org/w/bp8bSYNcPxNgwUw4Qch9irhttps://video.igem.org/lazy-static/thumbnails/4800205e-3709-4cb5-8f38-01cdc8e3b6e4.jpgEPFL: Drone Assembly Visualization Using Fusion 360 Explosion Tool (2025)This video showcases the full drone assembly sequence using the Fusion 360 Explosion Tool. Each component is separated in 3D space to clearly illustrate how the parts fit together in the final design. The exploded view highlights the drone’s modular structure, precision engineering, and ease of maintenance.https://static.igem.org/peertube/streaming-playlists/hls/5435ec3d-05fa-40e8-b474-07913f99d703/62e6c16d-87a1-4ca9-bc51-426b8032c2df-master.m3u8https://video.igem.org/videos/embed/bp8bSYNcPxNgwUw4Qch9ir110122025-10-06T15:11:39.713ZYES2025 TeamsNOhttps://video.igem.org/w/tdUNcdQy4GtpLqUuUHQcDghttps://video.igem.org/lazy-static/thumbnails/93a453fa-c5d3-49ee-aa76-77c621f351f3.jpgIIT-ROORKEE: Fifth Most Probable AMP (2025)Structure of one of the most probable AMP's.https://static.igem.org/peertube/streaming-playlists/hls/dc7434bd-d17e-4e66-bbee-f1b1818b518d/e3dd0fd8-772a-47f9-8f3e-9430fc2c07ef-master.m3u8https://video.igem.org/videos/embed/tdUNcdQy4GtpLqUuUHQcDg12012025-10-06T14:07:27.495ZYES2025 TeamsNOhttps://video.igem.org/w/tuxMAfjrTH3P5FAKMuTVAehttps://video.igem.org/lazy-static/thumbnails/fce200ba-f8c0-4f65-9eaa-e761ee9275ed.jpgTAU-Israel: Self-Folding Dynamics of a Single-Stranded ASO from our Data (2025)Representative MD simulation of a single-stranded antisense oligonucleotide (ASO) from our dataset. The trajectory shows how the ASO begins to spontaneously fold into secondary structure, over the course of the simulation. This highlights the importance of considering single-stranded conformational dynamics in addition to duplex formation when evaluating ASO behavior.https://static.igem.org/peertube/streaming-playlists/hls/dea32881-6496-4c8a-8f61-a3d43db68dcd/74f52682-c50b-4337-8cb9-0ef915597deb-master.m3u8https://video.igem.org/videos/embed/tuxMAfjrTH3P5FAKMuTVAe28002025-10-06T15:15:31.909ZYES2025 TeamsNOhttps://video.igem.org/w/43SEeYERswMJqnpxmxJQD7https://video.igem.org/lazy-static/thumbnails/afa9c09b-3479-4afa-ac12-2093701d7500.jpgNUS-Singapore: homepage light pattern (2025)The light patterns animation in our home page https://2025.igem.wiki/nus-singapore/https://static.igem.org/peertube/streaming-playlists/hls/18b21f99-be45-4c2d-87ce-6815e5ed9768/cc83fd84-784c-4c95-898d-93545d5fa4e9-master.m3u8https://video.igem.org/videos/embed/43SEeYERswMJqnpxmxJQD77002025-10-06T14:26:33.951ZYES2025 TeamsNOhttps://video.igem.org/w/gSwUYs3uMjFLB7HaaMq8Xdhttps://video.igem.org/lazy-static/thumbnails/65dfca1a-9b15-4557-87f5-f4794a039d50.jpgLambert-GA: Diagnostic Animation (2025) [English]Lambert iGEM 2025 animation of therapeutic overview. https://2025.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/808751c5-5a13-4852-bd20-5126b4d7cd6e/2d202ff8-086e-49d2-bf6a-7bf6f070c51b-master.m3u8https://video.igem.org/videos/embed/gSwUYs3uMjFLB7HaaMq8Xd31017172025-10-06T15:17:08.857ZYES2025 TeamsNOhttps://video.igem.org/w/uefMZhAKdSGZJeGUYUt5hzhttps://video.igem.org/lazy-static/thumbnails/661b1d2a-3287-432c-94c7-84d16e042f6f.jpgNUS-Singapore: homepage earth (2025)The earth animation in our home page https://2025.igem.wiki/nus-singapore/https://static.igem.org/peertube/streaming-playlists/hls/e499aafd-a5a3-4453-81be-c89f52b63ac9/207182d3-e561-4464-8aad-5ffa0234816b-master.m3u8https://video.igem.org/videos/embed/uefMZhAKdSGZJeGUYUt5hz4012025-10-06T15:12:16.061ZYES2025 TeamsNOhttps://video.igem.org/w/vNvnuQR2CFaaeCCTtr2oRqhttps://video.igem.org/lazy-static/thumbnails/89746051-90d8-4198-8cc3-09394ffbf874.jpgQueens-Canada: Blender animation 1 (2025) [English]Blender animationhttps://static.igem.org/peertube/streaming-playlists/hls/f15755b9-79b3-4897-bfdb-ec57414dffa2/9a1379ed-55ae-4f21-b67a-1bec7cf4f001-master.m3u8https://video.igem.org/videos/embed/vNvnuQR2CFaaeCCTtr2oRq100172025-10-06T15:34:17.667ZYES2025 TeamsNOhttps://video.igem.org/w/9jv8QeSVoVxvpDEaFdTWebhttps://video.igem.org/lazy-static/thumbnails/b15afe44-194a-42d8-8c45-a0aaa307795d.jpgTU-Delft: Chicken (2025)Snaccine logo next to Chicken. https://static.igem.org/peertube/streaming-playlists/hls/435e73c5-fcdc-4344-a5a7-29ff566f84ec/3177da7a-4566-4a0a-b44f-33964d8a9225-master.m3u8https://video.igem.org/videos/embed/9jv8QeSVoVxvpDEaFdTWeb5002025-10-06T15:12:21.020ZYES2025 TeamsNOhttps://video.igem.org/w/x9YUJDyPHqVzqaDtBX6HjAhttps://video.igem.org/lazy-static/thumbnails/2f662ef7-6a37-4256-ad90-111505b6f3d0.jpgTU-Delft: Chicken 2 (2025)Snaccine logo on chicken feed container. https://static.igem.org/peertube/streaming-playlists/hls/fc4c51f7-3618-4629-b2d3-62ec957e9752/a804dfe9-c469-4d1b-833f-ee0d42df2e1e-master.m3u8https://video.igem.org/videos/embed/x9YUJDyPHqVzqaDtBX6HjA7012025-10-06T15:15:51.374ZYES2025 TeamsNOhttps://video.igem.org/w/9a6ZCXV5bUnkdRH5hZ8WYyhttps://video.igem.org/lazy-static/thumbnails/dc2b5e9d-4037-41e8-99e0-53d419b90158.jpgIIT-ROORKEE: Third Most Probable AMP (2025)Structure of one of the most probable AMP's.https://static.igem.org/peertube/streaming-playlists/hls/420e7f3a-9416-41e0-80ec-e5bd818f7090/04f88896-6c06-44d4-915f-17d6003c8359-master.m3u8https://video.igem.org/videos/embed/9a6ZCXV5bUnkdRH5hZ8WYy11022025-10-06T14:18:04.736ZYES2025 TeamsNOhttps://video.igem.org/w/bvj34wpJJNnChXsouRMiovhttps://video.igem.org/lazy-static/thumbnails/8d78b4d1-f797-4398-b461-75dd0c791dcd.jpgLambert-GA: Cas12a Animation (2025)Lambert iGEM 2025 animation of CRISPR-Cas12a. https://2025.igem.wiki/lambert-ga/https://static.igem.org/peertube/streaming-playlists/hls/5513121a-bbb8-45e3-abef-49a8a3bd2495/1c3305f4-577d-44dd-a28a-c8feaa6f13b3-master.m3u8https://video.igem.org/videos/embed/bvj34wpJJNnChXsouRMiov6002025-10-06T15:15:57.513ZYES2025 TeamsNOhttps://video.igem.org/w/nuaW1LuLJDLuztXp5NY1aUhttps://video.igem.org/lazy-static/thumbnails/0b129819-7178-4aa2-889f-27935542b0a7.jpgTsinghua-M: yeast-oscillator (2025)video for wiki: https://2025.igem.wiki/tsinghua-mhttps://static.igem.org/peertube/streaming-playlists/hls/adfedb97-52e0-432e-afbd-bbee3c6ed09e/d6e561c1-d0c9-4507-bcea-2278decc34de-master.m3u8https://video.igem.org/videos/embed/nuaW1LuLJDLuztXp5NY1aU4002025-10-06T15:12:30.798ZYES2025 TeamsNOhttps://video.igem.org/w/oBbREMRTZM4r4k2cS4aPRwhttps://video.igem.org/lazy-static/thumbnails/5f99159e-4977-4471-a065-f5778a7f84aa.jpgIIT-ROORKEE: Fourth Most Probable AMP (2025)Structure of one of the most probable AMP's.https://static.igem.org/peertube/streaming-playlists/hls/b712c5df-4c9f-4b9d-ad91-cfe0a86c9cec/92b52ce7-93b0-4dff-8eff-57986969bd3d-master.m3u8https://video.igem.org/videos/embed/oBbREMRTZM4r4k2cS4aPRw14022025-10-06T14:26:39.248ZYES2025 TeamsNOhttps://video.igem.org/w/4WLx7wrCw2J6MeuS9mRzHJhttps://video.igem.org/lazy-static/thumbnails/99f4391c-9144-480f-8f35-f5352c74399c.jpgNUS-Singapore: Result mechanical testing (2025)The mechanical testing process of our product in our result page https://2025.igem.wiki/nus-singapore/resultshttps://static.igem.org/peertube/streaming-playlists/hls/1ff106ae-d894-4c0d-98d1-60cf15c0a080/4215bd25-9bbc-43e6-ae0f-e8b9ac919bfe-master.m3u8https://video.igem.org/videos/embed/4WLx7wrCw2J6MeuS9mRzHJ250152025-10-06T15:17:14.151ZYES2025 TeamsNOhttps://video.igem.org/w/8DPUEaZ6yB6F3dPZ8i65UGhttps://video.igem.org/lazy-static/thumbnails/d84db5ee-2ec1-4b44-b2b3-cf3280fb554b.jpgKULeuven: ABM_netlogo_killswitch (2025)KULeuven: ABM_netlogo_killswitch (2025)https://static.igem.org/peertube/streaming-playlists/hls/3df803af-d40d-423e-861e-ccd0fcab1e78/c5df32dd-b7c8-41db-86fe-2e0b5c497644-master.m3u8https://video.igem.org/videos/embed/8DPUEaZ6yB6F3dPZ8i65UG8062025-10-06T15:44:42.044ZYES2025 TeamsNOhttps://video.igem.org/w/sYMxD8XYoScX15ov98eiq4https://video.igem.org/lazy-static/thumbnails/d8386f41-4dce-43e9-8354-1a05a6eaba10.jpgIIT-ROORKEE: Most Probable AMP (2025)Structure of one of the most probable AMP's.https://static.igem.org/peertube/streaming-playlists/hls/da7b531f-e0d4-4213-9711-07ea963dd58f/d2f08f67-be5c-4c43-a7f1-1d8f64df52bb-master.m3u8https://video.igem.org/videos/embed/sYMxD8XYoScX15ov98eiq414032025-10-06T15:12:32.389ZYES2025 TeamsNOhttps://video.igem.org/w/eqrC5TynZKksmXeMqCY44Xhttps://video.igem.org/lazy-static/thumbnails/d92c2fd8-7c8f-46ad-a3a2-f339d2052a00.jpgKULeuven: ABM_netlogo_start (2025)KULeuven: ABM_netlogo_start (2025)https://static.igem.org/peertube/streaming-playlists/hls/6cb07179-e9b8-4dbf-ba08-5f620a8cef11/10e135a9-7df4-4d97-b9d2-28a792ea2584-master.m3u8https://video.igem.org/videos/embed/eqrC5TynZKksmXeMqCY44X1760102025-10-06T15:53:05.789ZYES2025 TeamsNOhttps://video.igem.org/w/wxKyzhGNDDbvKvXj9Cii75https://video.igem.org/lazy-static/thumbnails/a5a55070-fc5c-4219-971d-6a34b039d0e4.jpgNYCU-Formosa: blocks assembling-5 (2025)NYCU-Formosa: blocks assembling-5 (2025)https://static.igem.org/peertube/streaming-playlists/hls/f7610ffe-2272-416b-9aeb-0581f931a1ac/819cb5f0-e71a-4a0a-859f-bbc308cf5628-master.m3u8https://video.igem.org/videos/embed/wxKyzhGNDDbvKvXj9Cii7531002025-10-06T15:27:52.659ZYES2025 TeamsNOhttps://video.igem.org/w/eaVCVQdGTJuv7iDsAc3k4rhttps://video.igem.org/lazy-static/thumbnails/771f146b-0239-43e2-8f71-7013972b4fa8.jpgIIT-ROORKEE: drylab4.1 (2025)IIT-ROORKEE: drylab4.1 (2025)https://static.igem.org/peertube/streaming-playlists/hls/6aa98d21-b675-448f-9fa1-a6ed6aef05b3/524ad821-bd52-4c41-9c6d-543c5c4e52ef-master.m3u8https://video.igem.org/videos/embed/eaVCVQdGTJuv7iDsAc3k4r12002025-10-06T15:17:15.532ZYES2025 TeamsNOhttps://video.igem.org/w/nerUodQ9ioCPkx1bUgyfd8https://video.igem.org/lazy-static/thumbnails/b05e1193-bd2f-4fa0-8a1a-ec9c79336601.jpgEPFL: 3D Printing Demonstration – Fabrication of a Custom Drone Component (2025)This video demonstrates the 3D printing process used to fabricate one of our custom-designed drone parts. The footage shows the printer layer-by-layer deposition in action, highlighting the precision, material consistency, and design-to-production workflow that allow our team to rapidly prototype and test structural components before integration into the final drone assembly.https://static.igem.org/peertube/streaming-playlists/hls/abf08b54-7842-475f-8a95-57a55006cfa7/2a744f9e-f051-4372-bdef-fbaea187a322-master.m3u8https://video.igem.org/videos/embed/nerUodQ9ioCPkx1bUgyfd8130112025-10-06T15:28:42.349ZYES2025 TeamsNOhttps://video.igem.org/w/8nPnpoiNeaCqhwHVVd1JGthttps://video.igem.org/lazy-static/thumbnails/fac35d09-dc51-4943-8689-e2fbc1ba1f15.jpgLambert-GA: Cas12a Animation for Wiki (2025)*Animation of the CRISPR-Cas12a DETECTR System.* Made by Amy Jing Specific page to be used on: [Cas12a](https://2025.igem.wiki/lambert-ga/diagnostics-cas12/) Wiki to be used on: [Lambert-GA 2025](https://2025.igem.wiki/lambert-ga)https://static.igem.org/peertube/streaming-playlists/hls/3bbbc830-3b49-4f95-90e1-aa3e7627cfb3/0960cb99-e0d4-4cce-8fa3-a72b8cc37162-master.m3u8https://video.igem.org/videos/embed/8nPnpoiNeaCqhwHVVd1JGt90102025-10-06T14:26:57.811ZYES2025 TeamsNOhttps://video.igem.org/w/nwZDanrPPpSi32Wn7joM74https://video.igem.org/lazy-static/thumbnails/698b6f90-a1b8-4b23-9e2a-26d34b26b2fc.jpgNYCU-Formosa: efficiency-5 (2025)NYCU-Formosa: efficiency-5 (2025)https://static.igem.org/peertube/streaming-playlists/hls/ae63bf4f-ed58-4829-9dc1-91510175b043/5b678dfd-dc1b-4f52-bc10-9a7d1e8bc7ed-master.m3u8https://video.igem.org/videos/embed/nwZDanrPPpSi32Wn7joM7420162025-10-06T15:32:43.880ZYES2025 TeamsNOhttps://video.igem.org/w/gZso5ymd6SjmgrL7fQoVhuhttps://video.igem.org/lazy-static/thumbnails/c9b08dac-7996-44e9-af44-603cd4ace2e9.jpgNYCU-Formosa: att binding-6 (2025)NYCU-Formosa: att binding-6 (2025)https://static.igem.org/peertube/streaming-playlists/hls/817ebb82-002a-478e-a9a0-ce267fc88fe0/7f369c2d-b0bf-4bc3-95c6-c0b2d8bf450b-master.m3u8https://video.igem.org/videos/embed/gZso5ymd6SjmgrL7fQoVhu310512025-10-06T15:39:04.327ZYES2025 TeamsNOhttps://video.igem.org/w/ncAkcH1sKeacTLPVuwaojbhttps://video.igem.org/lazy-static/thumbnails/de3b6a94-642f-418b-ba8c-4876119ca980.jpgIIT-ROORKEE: Second Most Probable AMP (2025)Structure of one of most probable AMP.https://static.igem.org/peertube/streaming-playlists/hls/abae4027-64f7-4bb2-af55-52a36dfeecbe/1edb3403-0383-4d8e-8c7f-dce3cb643868-master.m3u8https://video.igem.org/videos/embed/ncAkcH1sKeacTLPVuwaojb16022025-10-06T15:32:46.993ZYES2025 TeamsNOhttps://video.igem.org/w/sgFKH3dg815oTFbgfKKWkFhttps://video.igem.org/lazy-static/thumbnails/dc788542-e919-4370-af32-515a583ffb24.jpgHeidelberg: Wetlab Series S1E6 Miniprep (2025) [English]This is part of our Wetlab Series. It is about performing Miniprep. You can find it on our learning platform on our wiki. https://2025.igem.wiki/heidelberg/https://static.igem.org/peertube/streaming-playlists/hls/d4be42be-bd23-4c01-851b-32b0c78e62f5/b04a7471-0bc3-4b35-8e78-42a148c5504d-master.m3u8https://video.igem.org/videos/embed/sgFKH3dg815oTFbgfKKWkF7475162025-10-06T15:03:55.458ZteamigemheidelbergwetlabseriesphoenicsheidelbergYES2025 TeamsNOhttps://video.igem.org/w/pryPkWgZiPwc4Gu6TPzRxMhttps://video.igem.org/lazy-static/thumbnails/25c24cf2-137c-40a4-813d-515902690cc2.jpgHeidelberg: S1E6 Miniprep Intro (2025)Intro Miniprep. This is part of our Wetlab Series, which can be found on our wiki. https://2025.igem.wiki/heidelberg/descriptionhttps://static.igem.org/peertube/streaming-playlists/hls/bdd401d6-3e3c-486a-8f25-da6435b0464f/696488e2-5d9a-4373-959f-339fc652dc3a-master.m3u8https://video.igem.org/videos/embed/pryPkWgZiPwc4Gu6TPzRxM205162025-10-06T14:35:09.377ZigemteamheidelbergwetlabseriesphoenicsheidelbergYES2025 TeamsNOhttps://video.igem.org/w/av7QcmocTE3N3YF4EsFXvbhttps://video.igem.org/lazy-static/thumbnails/cbbaad13-5ed1-4036-9796-aed3f7d4a2f7.jpgHainanU-China: Wiki loading animation (2025)Wiki loading animatiohttps://static.igem.org/peertube/streaming-playlists/hls/4cf306e9-66fc-4919-bfd9-bca94f45df10/f2e737bc-3d95-4735-b5f6-717556805258-master.m3u8https://video.igem.org/videos/embed/av7QcmocTE3N3YF4EsFXvb3022025-10-06T14:27:26.275ZYES2025 TeamsNOhttps://video.igem.org/w/qiQP9C64St7ehwMxpXagQ8https://video.igem.org/lazy-static/thumbnails/17678b7a-c232-4f7e-a171-fd0177f7c604.jpgJLU-NBBMS: A highly educational science popularization trip for primary school students (2025) [E...JLU-NBBMS: A highly educational science popularization trip for primary school students (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c4d90dcf-de4c-4257-94ec-0b5c83f7277b/82d76619-acae-4d8b-986f-4e19dedd823b-master.m3u8https://video.igem.org/videos/embed/qiQP9C64St7ehwMxpXagQ8197002025-10-06T15:14:19.082ZYES2025 TeamsNOhttps://video.igem.org/w/aZFqTF1PKb3s5WFidvfcWyhttps://video.igem.org/lazy-static/thumbnails/42987c5d-ff2b-466b-a9da-c6c4aac14282.jpgSZU-China: Drylab (2025)This video demonstrates the usage tutorial of our hardware. The address of our team's wiki is: https://2025.igem.wiki/szu-china/https://static.igem.org/peertube/streaming-playlists/hls/50eff120-f548-48e7-b6bc-febc4b1f0328/65b794d1-3b1c-4b82-b95a-e904364a610b-master.m3u8https://video.igem.org/videos/embed/aZFqTF1PKb3s5WFidvfcWy53012025-10-06T15:03:03.959ZDRY LABYES2025 TeamsNOhttps://video.igem.org/w/mUWbMKKzJtm4aEcJvAqmmghttps://video.igem.org/lazy-static/thumbnails/dab71c42-0e87-4989-bdbd-1e501a1e4e36.jpgIIT-ROORKEE: Bringing Science to Schools (2025) [Hindi]As part of our outreach activities, the iGEM IIT Roorkee 2025 team visited a local school to engage students with the excitement of science. We conducted a series of interactive chemistry experiments, designed to spark curiosity and demonstrate how scientific principles connect to everyday life. The session not only introduced the basics of experimentation but also encouraged young learners to ask questions, think critically, and see science as a creative and enjoyable process. Through such initiatives, we aim to inspire the next generation of innovators and promote a stronger culture of scientific awareness.https://static.igem.org/peertube/streaming-playlists/hls/a95ad7b1-e142-4ed6-ae15-66100dca1467/fa5bdfb6-0f79-49a4-9a95-910241c864d2-master.m3u8https://video.igem.org/videos/embed/mUWbMKKzJtm4aEcJvAqmmg35082025-10-06T15:37:09.244ZYES2025 TeamsNOhttps://video.igem.org/w/6H1fw3neHS9ZNU1U8egn1Ahttps://video.igem.org/lazy-static/thumbnails/d489af00-c635-4e0e-afa1-97e38dbf3f46.jpgRDFZ-CHINA: Making Of (2025) [Chinese]RDFZ-CHINA: Making Of (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/2e375795-bd20-4d61-ab3d-ce330843a69e/bfbe30e2-ee67-4477-a0be-873f26cd7bf9-master.m3u8https://video.igem.org/videos/embed/6H1fw3neHS9ZNU1U8egn1A127062025-10-07T00:44:15.850ZYES2025 TeamsNOhttps://video.igem.org/w/5Zi66uFVA1x7LHpW7GvCashttps://video.igem.org/lazy-static/thumbnails/24236333-62f8-4593-8aff-870fb5a43cc6.jpgHG-Tokyo: が紹介！~合成生物学の世界~ An Introduction to the World of Synthetic Biology by iGEM Hg... (2025) [...This video aims to give the Japanese audience a general knowledge of synthetic biology as well as information on our project, such as Jabara and Narirutin. We made this video for the iGEM HG-Tokyo’s YouTube channel.https://static.igem.org/peertube/streaming-playlists/hls/28647af4-006c-4b57-96e9-8094dd0851fc/bf419d9f-8d69-4ee2-9eb3-76e5a3fdfb51-master.m3u8https://video.igem.org/videos/embed/5Zi66uFVA1x7LHpW7GvCas475032025-10-06T14:44:43.737ZYES2025 TeamsNOhttps://video.igem.org/w/aRkcmyu9ruoN5cTxfJDMc3https://video.igem.org/lazy-static/thumbnails/c2e1ed82-fb88-4c59-a522-9a8c9c74c62d.jpgBNU-China: Education 2 (2025) [Chinese]BNU-China: Education 2 (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/4fc585c1-5ad7-45db-9658-bf46b0ac813c/9445233b-ebc1-43f7-954f-5305fa3aa6d1-master.m3u8https://video.igem.org/videos/embed/aRkcmyu9ruoN5cTxfJDMc3405022025-10-06T14:34:31.817ZYES2025 TeamsNOhttps://video.igem.org/w/bWjTnaAvaZfsF5k3g2cKW8https://video.igem.org/lazy-static/thumbnails/adfe587b-3097-4892-9234-f50bca2f125e.jpgIIT-ROORKEE: Thought Behind Educational (2025) [English]This video explains the importance and thought behind creating the educational videos.https://static.igem.org/peertube/streaming-playlists/hls/58913058-3116-4e62-a0f7-cf6b09932877/87b69efc-95ea-4335-ba21-f2fdb3b95401-master.m3u8https://video.igem.org/videos/embed/bWjTnaAvaZfsF5k3g2cKW836082025-10-06T15:37:58.477ZYES2025 TeamsNOhttps://video.igem.org/w/5Szg8vkPzsRJ84Ne4JMz4ihttps://video.igem.org/lazy-static/thumbnails/0ad72ca1-ba14-47bd-b4d5-9f003b6e8df4.jpgBNU-China: education 3 (2025) [Chinese]BNU-China: education 3 (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/27743da9-8a9c-41f7-b778-7e1ba1908e2b/dfd02d69-bf04-4da3-8315-071cd7edf81d-master.m3u8https://video.igem.org/videos/embed/5Szg8vkPzsRJ84Ne4JMz4i15012025-10-06T15:03:09.925ZYES2025 TeamsNOhttps://video.igem.org/w/4owykB8DWkx8Dwkc5YaMCMhttps://video.igem.org/lazy-static/thumbnails/7707ef6d-f75d-4cc1-bd6d-970c5bb79a49.jpgGU-Frankfurt: Contribution BFH European Meet-up (2025) [English]"Unite, Innovate, Inspire" – The BFH European Meetup in Frankfurt brought together 170+ participants from 26 iGEM teams across 7 countries for an unforgettable event of collaboration, creativity, and cutting-edge science. Relive the highlights of this inspiring gathering!https://static.igem.org/peertube/streaming-playlists/hls/1b709c55-90e8-4b8b-9f4f-0115a36ba551/66077313-fe7b-451d-9e8c-41f0c59755d6-master.m3u8https://video.igem.org/videos/embed/4owykB8DWkx8Dwkc5YaMCM2300752025-10-06T15:49:32.857ZBFH European Meet-Up YES2025 TeamsNOhttps://video.igem.org/w/6skYXU6APa3utcqGNWPC8uhttps://video.igem.org/lazy-static/thumbnails/3b4b157d-49bf-4cb6-8a13-d4080a905fe7.jpgJLU-NBBMS: Team log of En Chen, a member of the Wiki group (2025) [English]JLU-NBBMS: Team log of En Chen, a member of the Wiki group (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/2c2b5882-e7c0-404c-baa1-7e01db44db3a/7b394d8e-f981-450a-8afa-82a18c7b9220-master.m3u8https://video.igem.org/videos/embed/6skYXU6APa3utcqGNWPC8u266022025-10-06T15:28:47.896ZYES2025 TeamsNOhttps://video.igem.org/w/91BVJYAJyYXyTuAmTrAkHGhttps://video.igem.org/lazy-static/thumbnails/9e9bb641-81d9-42d4-a127-2a6df708cc29.jpgIIT-ROORKEE: Health Detection Camp at a Marginalised Village (2025)This Video shows the successful health detection camp at village named “Raerkala” in Haryana to aware people about TB and Health.https://static.igem.org/peertube/streaming-playlists/hls/40df3ff3-d4a9-41dc-a59d-38e784db75de/cff9e309-1f1c-46b5-bf23-4e0628801ff4-master.m3u8https://video.igem.org/videos/embed/91BVJYAJyYXyTuAmTrAkHG32072025-10-06T15:42:59.421ZYES2025 TeamsNOhttps://video.igem.org/w/m4goNPytx8Gr3tAvuBwsyPhttps://video.igem.org/lazy-static/thumbnails/df7fbe1a-77dc-4741-a55d-8c5ae52795f2.jpgREC-CHENNAI: hardware results (2025)29 second video of hardware results - e tougue. wiki link: https://2025.igem.wiki/rec-chennai/electronic-tonguehttps://static.igem.org/peertube/streaming-playlists/hls/a26b7dad-2e53-4b7d-bef8-c01df291f1b7/41d068fd-ae91-4fc6-b03c-56a86490e4dd-master.m3u8https://video.igem.org/videos/embed/m4goNPytx8Gr3tAvuBwsyP260292025-10-07T00:47:12.744ZYES2025 TeamsNOhttps://video.igem.org/w/rpWpLeDor2MMRJGM6R2sN3https://video.igem.org/lazy-static/thumbnails/f0c96c31-83ec-4241-80c8-320c51cd47bc.jpgJLU-CP: Blue Plannet (2025)This video serves as the backgound video of jlu-cp wiki homepage! I hope you like this.https://static.igem.org/peertube/streaming-playlists/hls/cdcc1ab8-9e47-406e-8795-2feb2df733ae/0f6cb212-6583-4d30-86f9-6b3880cdb5cf-master.m3u8https://video.igem.org/videos/embed/rpWpLeDor2MMRJGM6R2sN35052025-10-06T14:42:39.670ZSpaceYES2025 TeamsNOhttps://video.igem.org/w/6AUxZWyhur6P8mYog8oQrNhttps://video.igem.org/lazy-static/thumbnails/7152c6e7-4c19-493b-b798-32e8d9bda156.jpgJLU-NBBMS: Team log of Huiyan Xu, a member of the Dry lab group (2025) [English]JLU-NBBMS: Team log of Huiyan Xu, a member of the Dry lab group (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/2d5d5e1c-5434-45f5-a6c1-3a3adfde4f58/c8559e33-b6e9-458f-ac13-09c3f8fe68e1-master.m3u8https://video.igem.org/videos/embed/6AUxZWyhur6P8mYog8oQrN235002025-10-06T15:33:43.334ZYES2025 TeamsNOhttps://video.igem.org/w/fmKcC3FQ9tZimdAhM76pwBhttps://video.igem.org/lazy-static/thumbnails/33f2aed9-979d-4710-af1e-7af4b4b64ca3.jpgEPFL: Time-Lapse: Manual CAD Modeling of the Drone Frame in Fusion 360 (2025)This time-lapse showcases the manual CAD design process of the drone’s upper frame in Fusion 360. It highlights the creation of key structural features, demonstrating the precision and iterative design workflow.https://static.igem.org/peertube/streaming-playlists/hls/74457097-a81e-4677-86dc-da13fe4bac73/bfd13490-deda-4e3f-9ae6-ddb36f478578-master.m3u8https://video.igem.org/videos/embed/fmKcC3FQ9tZimdAhM76pwB300232025-10-06T15:38:55.085ZYES2025 TeamsNOhttps://video.igem.org/w/5vbm364Qkx1ncjYjTNDs7Shttps://video.igem.org/lazy-static/thumbnails/cde8b2ec-1266-4401-aaa0-eac629687377.jpgREC-CHENNAI: e-tongue results (2025)29 second video of e-tongue results wiki link :https://2025.igem.wiki/rec-chennai/electronic-tonguehttps://static.igem.org/peertube/streaming-playlists/hls/24777fe4-6677-4938-986e-127c6351973e/4bec062c-c5cd-4e03-a72c-7738e6db9df7-master.m3u8https://video.igem.org/videos/embed/5vbm364Qkx1ncjYjTNDs7S300562025-10-07T00:47:28.453ZYES2025 TeamsNOhttps://video.igem.org/w/2a1EhJzs3hiNEhHGp1voaFhttps://video.igem.org/lazy-static/thumbnails/049f6274-bb6c-47bc-b627-6502077ee4dd.jpgUCalgary: Mindfuel Pitch (2025) [English]Mindfuel Pitch Comeptition Video.https://static.igem.org/peertube/streaming-playlists/hls/095b3d4a-a044-4b86-9ddc-4c78c34f1fb1/7eca84e3-81c1-41ed-bde7-40b9b447a79d-master.m3u8https://video.igem.org/videos/embed/2a1EhJzs3hiNEhHGp1voaF352022025-10-06T15:32:43.187ZVirusBirdAvian InfluenzaInfectious DiseasesYES2025 TeamsNOhttps://video.igem.org/w/x4wZ5A5HZPKRFzAX13wTLshttps://video.igem.org/lazy-static/thumbnails/c984972d-e95b-41ea-8220-a93af19d3128.jpgJLU-NBBMS: Wiki Team Member Team Log (2025) [Chinese]JLU-NBBMS: Wiki Team Member Team Log (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/fb899fd9-9063-466c-b90c-477fb88272ce/44696e9f-cd33-4ef3-a6c4-893687ccbc11-master.m3u8https://video.igem.org/videos/embed/x4wZ5A5HZPKRFzAX13wTLs159012025-10-06T14:49:45.116ZYES2025 TeamsNOhttps://video.igem.org/w/p8GRogomQggXq5jwEPS16rhttps://video.igem.org/lazy-static/thumbnails/00db0f46-4fe6-409e-a405-49a62ca34f54.jpgUCalgary: Mindfuel Prototype (2025)Mindfuel Prototype Competition Video.https://static.igem.org/peertube/streaming-playlists/hls/bb559238-114b-474a-ad7d-6dd50e3f893b/7c055df1-32ba-495e-8324-efd5dd3340f7-master.m3u8https://video.igem.org/videos/embed/p8GRogomQggXq5jwEPS16r116022025-10-06T15:36:03.040ZBirdVirusAvian influenzainfectious diseasesYES2025 TeamsNOhttps://video.igem.org/w/6fvZ99y39RxtjgLqe51Wtqhttps://video.igem.org/lazy-static/thumbnails/c44f50bc-3fe8-4d76-b909-9bd88bdbaa95.jpgJLU-NBBMS: Team Log ChaiXinyue (2025) [English]Team Log for ChaiXinyue, one of the members responsible for art in our team.https://static.igem.org/peertube/streaming-playlists/hls/2a8495c9-60f1-4ef0-940c-51555d53d42e/e02b716d-f1fd-4373-befa-d44aab1e7cda-master.m3u8https://video.igem.org/videos/embed/6fvZ99y39RxtjgLqe51Wtq69002025-10-06T14:50:27.472ZYES2025 TeamsNOhttps://video.igem.org/w/qiCMwKmE6YCg4FvM4oZ8bfhttps://video.igem.org/lazy-static/thumbnails/d6e4a0af-788c-4c84-8764-1d08bb90b92e.jpgJLU-NBBMS: Team log of Jiayin Sun, a member of the Wet lab group (2025) [Chinese]JLU-NBBMS: Team log of Jiayin Sun, a member of the Wet lab group (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/c4d1a438-dfc6-4b41-8b83-a4038fb0ec36/81e9f38a-22dd-44b1-8d6f-b84e520dbf23-master.m3u8https://video.igem.org/videos/embed/qiCMwKmE6YCg4FvM4oZ8bf275002025-10-06T15:44:07.690ZYES2025 TeamsNOhttps://video.igem.org/w/1g1PSJWvC7eNVu1eWrkRSfhttps://video.igem.org/lazy-static/thumbnails/f88e02b5-45ea-44ab-a3bc-5d4a1f63271a.jpgJLU-NBBMS: Team log of Tong Zhu, a member of the Human Practice group (2025) [Chinese]JLU-NBBMS: Team log of Tong Zhu, a member of the Human Practice group (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/0218aa4d-0c96-4b60-9a6a-d0f61cbfc5ce/162b3d02-1b7f-4e94-8501-3a6d1e17f4c9-master.m3u8https://video.igem.org/videos/embed/1g1PSJWvC7eNVu1eWrkRSf151002025-10-06T15:47:18.493ZYES2025 TeamsNOhttps://video.igem.org/w/bCaVxj6cZEwRYvXUUhFco7https://video.igem.org/lazy-static/thumbnails/cc89656b-1072-4332-ae7c-979467f480d3.jpgUtrecht: Explanation of Bacteria Growth Models (2025) [English]Video for the wiki (modelling page) https://2025.igem.wiki/utrecht/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/56084713-f385-4428-8f26-57c4ffe10ea6/0dc300fe-0784-4c0d-ba61-2fd19bec1570-master.m3u8https://video.igem.org/videos/embed/bCaVxj6cZEwRYvXUUhFco7178082025-10-06T15:13:29.406ZYES2025 TeamsNOhttps://video.igem.org/w/ko262NtGnpHXCZqsiPagjXhttps://video.igem.org/lazy-static/thumbnails/2f078e7d-b184-43ca-bc88-09a1e0f18246.jpgEPFL: Battery Holder Stability Demonstration (2025)This video demonstrates the stability and vibration resistance of our custom-designed battery holder during operation. The test highlights how the holder’s reinforced structure and rubber-damped mounts securely maintain the battery’s position under dynamic forces, minimizing vibration transfer to the frame and ensuring safe, reliable power delivery throughout flight.https://static.igem.org/peertube/streaming-playlists/hls/9cf0aace-2e59-463f-a665-521d18547ddf/1d6a0016-e182-4ef6-9581-947a3909f967-master.m3u8https://video.igem.org/videos/embed/ko262NtGnpHXCZqsiPagjX60112025-10-06T15:38:16.594ZYES2025 TeamsNOhttps://video.igem.org/w/vd9RaZ9JN6xDfSbbrJzRHahttps://video.igem.org/lazy-static/thumbnails/f82f5c8d-ed18-4073-98b2-1bd7aa486d0a.jpgBNUZH-China: Microbial melody (2025)This is a piece of music artistically translated from the growth data of E. coli , accompanied by a visualized video.When watching, please turn up your volume. 这是一段由大肠杆菌生长数据艺术转译成的音乐，并且加上了可视化的视频。当你观看时，请调大你的音量。https://static.igem.org/peertube/streaming-playlists/hls/ec8b6626-acd3-4aec-ae34-e60ab65bcf1f/f9e1c446-c402-444c-9cb2-f735dade150a-master.m3u8https://video.igem.org/videos/embed/vd9RaZ9JN6xDfSbbrJzRHa3090262025-10-06T15:04:49.375ZYES2025 TeamsNOhttps://video.igem.org/w/bAmPu8PyagX8QLmr97ghjmhttps://video.igem.org/lazy-static/thumbnails/ea096f8a-c296-4beb-bca2-27aff1387e73.jpgUtrecht: SCORCH-the Education Model (2025)Video for the wiki (education page) https://2025.igem.wiki/utrecht/index.htmlhttps://static.igem.org/peertube/streaming-playlists/hls/55c78138-4349-4cb9-8774-64f6b860f860/48e26362-2bfb-4746-8e5f-8ef9169e4ead-master.m3u8https://video.igem.org/videos/embed/bAmPu8PyagX8QLmr97ghjm180162025-10-06T15:29:37.825ZYES2025 TeamsNOhttps://video.igem.org/w/785d3z3CyUPwBkBHsRbtrLhttps://video.igem.org/lazy-static/thumbnails/cf56f81e-5b38-41c6-bb7a-fcfa5f87667c.jpgEPFL: Infrared Camera Application Testing (2025)This video shows the testing of our custom infrared (IR) camera application, developed to capture and process real-time thermal data. The interface displays live temperature mapping, dynamic color recalibration, and a central crosshair indicating localized temperature averages. This system enables precise heat detection and monitoring, forming a key component of our drone’s fire detection and burn test analysis workflow.https://static.igem.org/peertube/streaming-playlists/hls/3193a1a4-453d-441a-b94f-b9a087f1a142/d6a7f76b-416e-4b29-aaba-922a0b8bb288-master.m3u8https://video.igem.org/videos/embed/785d3z3CyUPwBkBHsRbtrL150102025-10-06T15:43:05.279ZYES2025 TeamsNOhttps://video.igem.org/w/76bzafNbRfm2xSNckHHpe9https://video.igem.org/lazy-static/thumbnails/0619c712-b859-4de0-ac76-ff1b5be79458.jpgPekingHSC: Inclusivity Review (2025) [English]A system review of inclusivity work.https://static.igem.org/peertube/streaming-playlists/hls/315010dc-52a1-4775-a71b-fa9a5a6f37ce/9dd7bd65-876b-4bd4-9439-59f48ceb0153-master.m3u8https://video.igem.org/videos/embed/76bzafNbRfm2xSNckHHpe96220142025-10-06T15:02:15.662ZYES2025 TeamsNOhttps://video.igem.org/w/6SBUngvFuiHBDPkEmNqoyyhttps://video.igem.org/lazy-static/thumbnails/cee13c8a-0c15-4bf0-94aa-48c12b16ff85.jpgEPFL: Infrared Camera Application Testing #2 (2025)This video shows a second test of our custom infrared (IR) camera application, developed to capture and process real-time thermal data. The interface displays live temperature mapping, dynamic color recalibration, and a central crosshair indicating localized temperature averages. This system enables precise heat detection and monitoring, forming a key component of our drone’s fire detection and burn test analysis workflow.https://static.igem.org/peertube/streaming-playlists/hls/2f8f01fa-ba77-403c-87c4-5462e9170f98/4ce78e65-f14a-4143-8ac8-6093108eebc9-master.m3u8https://video.igem.org/videos/embed/6SBUngvFuiHBDPkEmNqoyy7012025-10-06T15:47:11.605ZYES2025 TeamsNOhttps://video.igem.org/w/13MJVoM66cZTwEaXEAmr12https://video.igem.org/lazy-static/thumbnails/48f405ac-af0b-4d09-83bf-70458e82f4cc.jpgHG-Tokyo: DNA Related Gestures (2025) [English]This video was created as part of a sign language collaboration with Hong Kong schools to introduce foundational concepts in DNA, RNA, and synthetic biology to deaf students. In the video, sign languages for DNA, transcription, and translation are shown. Simple explanations for each of those terms are given in Japanese, Cantonese, and English.https://static.igem.org/peertube/streaming-playlists/hls/0063ad02-b4be-4ae0-a625-281ef47b51c5/d9584668-2302-46df-80e5-b636067ec351-master.m3u8https://video.igem.org/videos/embed/13MJVoM66cZTwEaXEAmr1281012025-10-06T15:01:56.499ZYES2025 TeamsNOhttps://video.igem.org/w/pQPV2PQTy5VCCQ4SBRorTYhttps://video.igem.org/lazy-static/thumbnails/2b318d64-1cde-4641-8558-f76b48e21ece.jpgHG-Tokyo: Synthetic Biology (2025) [English]This video was created as part of the sign language collaboration with Hong Kong schools to introduce deaf students to foundational concepts in DNA, RNA, and synthetic biology. In this video, sign languages for synthetic biology, E. coli, and bacteria are shown. For each term, simple explanations as well as the process for how we came up with the sign languages are provided in Japanese, English, and Cantonese.https://static.igem.org/peertube/streaming-playlists/hls/c1136b1c-24fb-42ff-9a64-a210334370aa/9be313b8-d830-4026-84f9-0ddddb9455e8-master.m3u8https://video.igem.org/videos/embed/pQPV2PQTy5VCCQ4SBRorTY101022025-10-06T15:06:27.026ZYES2025 TeamsNOhttps://video.igem.org/w/2Rz5CJ2ARCqwdhxkgc9JPphttps://video.igem.org/lazy-static/thumbnails/a7a19377-7394-477c-b9c2-007973eeda53.jpgPekingHSC: Introduction of inclusivity handbook (2025) [English]This is the Introduction of inclusivity handbook written by PekingHSC 2025.https://static.igem.org/peertube/streaming-playlists/hls/0f04f837-2c7b-44ef-bdea-a290c782b435/8f2de3d5-46c6-4870-86d5-5245dfb0ace7-master.m3u8https://video.igem.org/videos/embed/2Rz5CJ2ARCqwdhxkgc9JPp2250132025-10-06T15:09:56.787ZYES2025 TeamsNOhttps://video.igem.org/w/ch188UtZcCHHBkX3w8Baoxhttps://video.igem.org/lazy-static/thumbnails/d70ee743-5d50-4e57-936b-3995f81f8a12.jpgJilin-AI: Demonstration of BIOMNIGEM (2025)# A demonstration video of BIOMNIGEM site features - Multi-Modal - Chain-of-thought - Multi-Language - Bionic-Reading - Up-to-date Featureshttps://static.igem.org/peertube/streaming-playlists/hls/5b50805c-1f1d-4281-a519-38b37661ce07/ed0cd0e2-9dfb-456e-ace2-b20d6450d5fd-master.m3u8https://video.igem.org/videos/embed/ch188UtZcCHHBkX3w8Baox1230232025-10-06T15:12:07.421ZAIYES2025 TeamsNOhttps://video.igem.org/w/tXf1MDtG8q8JYadFakprKNhttps://video.igem.org/lazy-static/thumbnails/0e6c3a92-17eb-42b2-9a8d-45150e4cad9c.jpgCornell: ARC Bioreactor LED Testing (2025)Demonstration video of the LED module of our bioreactor for [Hardware page] (https://2025.igem.wiki/cornell/hardware).https://static.igem.org/peertube/streaming-playlists/hls/e25d498f-0347-4cc3-9e5e-d32dc7321198/758d39b7-e84b-4683-9875-007b03fbb0b8-master.m3u8https://video.igem.org/videos/embed/tXf1MDtG8q8JYadFakprKN440132025-10-06T21:34:07.209ZYES2025 TeamsNOhttps://video.igem.org/w/qXQhzF3yWx8GZvJthRYoz7https://video.igem.org/lazy-static/thumbnails/8cd8f7dd-9dd1-455c-9a05-0e428dfee77f.jpgNTHU-Taiwan: bd simulation (2025)simulatio videohttps://static.igem.org/peertube/streaming-playlists/hls/ca26fe0e-f2ed-4c53-8932-f9a1f7722c28/63470b3d-0db7-4e35-982f-0a787f7bf21b-master.m3u8https://video.igem.org/videos/embed/qXQhzF3yWx8GZvJthRYoz734012025-10-06T15:35:42.637ZYES2025 TeamsNOhttps://video.igem.org/w/joCRDYNNTRjtMv2kHZpHLehttps://video.igem.org/lazy-static/thumbnails/fcade935-b902-44f9-beaf-88e8cd8226f0.jpgHUST-China: Alignment of t-HMGR before and after optimization (2025)HUST-China: Alignment of t-HMGR before and after optimization (2025)https://static.igem.org/peertube/streaming-playlists/hls/94ed927c-4e65-4717-bbb3-89b3e8e479d1/831260ec-b2aa-4e99-8b97-ade05d5f3aa0-master.m3u8https://video.igem.org/videos/embed/joCRDYNNTRjtMv2kHZpHLe70392025-10-06T15:43:13.276ZYES2025 TeamsNOhttps://video.igem.org/w/4FfSruKZuWBXV25JXtgDE3https://video.igem.org/lazy-static/thumbnails/0a469684-76d6-4ba5-96c6-f8cae906efe2.jpgNTHU-Taiwan: Human Practice Intern Feedback (2025) [Chinese]NTHU-Taiwan: Human Practice Intern Feedback (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/1dc69635-a64b-4a87-8a35-63fba04584ba/77a6f768-583b-4ad5-a4d8-62c21ce06fe4-master.m3u8https://video.igem.org/videos/embed/4FfSruKZuWBXV25JXtgDE353002025-10-06T15:43:12.885ZYES2025 TeamsNOhttps://video.igem.org/w/r8n7LHSPP1c1pK1ebdUV4Qhttps://video.igem.org/lazy-static/thumbnails/2900743a-b274-4a3a-8d12-10bf3047f72d.jpgHeidelberg: Our Team (2025)Get to know our team members. Our wiki: https://2025.igem.wiki/heidelberg/https://static.igem.org/peertube/streaming-playlists/hls/cb7bafc1-6516-406b-94f0-eb5c138c88b2/9d59e73c-b375-497d-a4df-9453d685abdd-master.m3u8https://video.igem.org/videos/embed/r8n7LHSPP1c1pK1ebdUV4Q355312025-10-06T15:46:11.619ZphoenicsheidelbergteamigemheidelbergYES2025 TeamsNOhttps://video.igem.org/w/aGnsgvkwJSx5Jb65a6EGF6https://video.igem.org/lazy-static/thumbnails/f80d6fae-d6df-4e53-93cd-a49653e1e46f.jpgNTHU-Taiwan: Wet Lab Intern Feedback (2025) [Chinese]NTHU-Taiwan: Wet Lab Intern Feedback (2025) [Chinese]https://static.igem.org/peertube/streaming-playlists/hls/4e853834-702b-4c0d-931d-239e58057fdb/89c2d59d-f66d-4430-a0cb-e2a99c09332d-master.m3u8https://video.igem.org/videos/embed/aGnsgvkwJSx5Jb65a6EGF6144032025-10-06T15:53:27.347ZYES2025 TeamsNOhttps://video.igem.org/w/441w23cNm2ShyAKY6WKLDnhttps://video.igem.org/lazy-static/thumbnails/7d380e5f-88cd-42d7-b49e-0e640ef30917.jpgQueens-Canada: Micropipetting Tutorial (2025) [English]Pipetting tutorial covering 3 techniques: blow out, dispensing only to the first stop, and priming. Reference for the micropipette diagram: Microlit USA. Micropipette product guide. Accessed October 6, 2025. https://www.microlit.us/micropipette-product-guide/?srsltid=AfmBOoovnLSl1tPDRdhR3e_v2p4smhjajLAtdbKgBcy9nyqfTyBQfylwhttps://static.igem.org/peertube/streaming-playlists/hls/18b6f75b-997e-4817-8259-8dd4f85b205f/f7a9baa4-bd34-489e-bcc3-2861b5623748-master.m3u8https://video.igem.org/videos/embed/441w23cNm2ShyAKY6WKLDn2020132025-10-06T15:53:42.353ZYES2025 TeamsNOhttps://video.igem.org/w/1Bgjj1Lc52TQnAcrbg18N2https://video.igem.org/lazy-static/thumbnails/b4547f81-545e-4d31-b93b-b4c201f6fa10.jpgNTHU-Taiwan: DryLab_Intern_Feedback (2025)NTHU-Taiwan: DryLab_Intern_Feedback (2025)https://static.igem.org/peertube/streaming-playlists/hls/04ec7878-451f-4d46-9906-198dbe5f1e59/072fcca0-c2fe-4069-af8d-1baabd65408a-master.m3u8https://video.igem.org/videos/embed/1Bgjj1Lc52TQnAcrbg18N276012025-10-06T15:59:05.611ZYES2025 TeamsNOhttps://video.igem.org/w/q1EQ4HbnZuYwSg87tRvzGshttps://video.igem.org/lazy-static/thumbnails/9a56248e-2919-4c55-9a75-cf10863357e0.jpgBielefeld-CeBiTec: Banana DNA extraction (2025) [English]Bielefeld-CeBiTec: Banana DNA extraction (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/c27341c2-3486-4310-bf68-0ec84b4c4346/d8b495fc-bb6a-4219-99ed-b7f2dccf6ae2-master.m3u8https://video.igem.org/videos/embed/q1EQ4HbnZuYwSg87tRvzGs40032025-10-06T15:55:19.686ZYES2025 TeamsNOhttps://video.igem.org/w/aawKn3cgYEWUiwih4cDkK3https://video.igem.org/lazy-static/thumbnails/da949741-a1e2-420a-9a60-def41e8c4c8d.jpgSYPHU-CHINA: Model+Software (2025) [English]SYPHU-CHINA: Model+Software (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/4a36e409-a3a0-468b-8e2c-ac8ccae94a44/841c89b2-3a90-451d-bfd8-7e9e619fcbd4-master.m3u8https://video.igem.org/videos/embed/aawKn3cgYEWUiwih4cDkK3484022025-10-06T23:20:30.006ZYES2025 TeamsNOhttps://video.igem.org/w/e2BhvvqC2W7c8dfz7gELXkhttps://video.igem.org/lazy-static/thumbnails/c5121fed-957b-41f8-9432-d636948f5d2d.jpgSYPHU-CHINA: AIVC (2025) [English]SYPHU-CHINA: AIVC (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/69804a91-305c-4676-ba5f-7ba84bc5f599/c9a4d09f-5b30-4fa9-88a7-70b626c920b2-master.m3u8https://video.igem.org/videos/embed/e2BhvvqC2W7c8dfz7gELXk2000182025-10-06T23:57:46.627ZYES2025 TeamsNOhttps://video.igem.org/w/ucRfY1mAqMZNJnobuzG1aphttps://video.igem.org/lazy-static/thumbnails/f69b6b51-6252-41e3-aa07-49fedca36c62.jpgSYPHU-CHINA: Questionnaire platform (2025) [English]SYPHU-CHINA: Questionnaire platform (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/e4676b97-fee0-4b56-b321-d75ede1d5371/97f8e220-94af-411e-a01d-081d77d9db81-master.m3u8https://video.igem.org/videos/embed/ucRfY1mAqMZNJnobuzG1ap205072025-10-07T00:32:48.841ZYES2025 TeamsNOhttps://video.igem.org/w/4BuqqWGqdHkSno4xEvBcJ9https://video.igem.org/lazy-static/thumbnails/8525a803-188a-4180-a1b9-24b5517b971c.jpgSYPHU-CHINA: CRISPR_System_Design_HQ (2025) [English]SYPHU-CHINA: CRISPR_System_Design_HQ (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/1d3ff68f-230d-400a-b013-f04c3a55e760/0d5c91e4-99b8-41ce-a0ef-3f2a2be9251e-master.m3u8https://video.igem.org/videos/embed/4BuqqWGqdHkSno4xEvBcJ91070212025-10-07T00:33:17.331ZYES2025 TeamsNOhttps://video.igem.org/w/prhMmBKiERxstJ7fkRU5pZhttps://video.igem.org/lazy-static/thumbnails/58af7665-a157-4987-a6d0-d421636982c9.jpgSYPHU-CHINA: Enhanced Homologous Recombination Animation (2025) [English]SYPHU-CHINA: Enhanced Homologous Recombination Animation (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/bdca202d-cdcb-4129-b5e7-a91bc983938f/ff8bff28-ad6f-422f-9f59-4db8af466e08-master.m3u8https://video.igem.org/videos/embed/prhMmBKiERxstJ7fkRU5pZ1180212025-10-07T00:36:43.243ZYES2025 TeamsNOhttps://video.igem.org/w/cd8zB8ubd7BDsXC884Yub9https://video.igem.org/lazy-static/thumbnails/92a5062e-def3-4c1a-b7e1-cbe6b687193c.jpgSYPHU-CHINA: EnhancedPlasmidExtractionAnimation (2025) [English]SYPHU-CHINA: EnhancedPlasmidExtractionAnimation (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/5ac61f19-0f29-4817-b3cd-b236bc81364c/3e8a6978-7af3-4733-841d-c048ce39fa42-master.m3u8https://video.igem.org/videos/embed/cd8zB8ubd7BDsXC884Yub91640232025-10-07T00:44:30.942ZYES2025 TeamsNOhttps://video.igem.org/w/mziutJMa3gya35sUCadU33https://video.igem.org/lazy-static/thumbnails/167537c7-ccdb-4d8a-b4a8-406f5d5db63b.jpgSYPHU-CHINA: Heat_Shock_Transformation_HQ (2025) [English]SYPHU-CHINA: Heat_Shock_Transformation_HQ (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/a69d18c9-753f-4eca-b4ad-4049ad3447b6/7034f983-e3d7-47b2-88d2-0ed3b57ff1bd-master.m3u8https://video.igem.org/videos/embed/mziutJMa3gya35sUCadU331230212025-10-07T00:45:11.080ZYES2025 TeamsNOhttps://video.igem.org/w/aLcqXpajE5biARsJYdNByyhttps://video.igem.org/lazy-static/thumbnails/0dd7a4fa-8b07-4bef-adee-efb4a112a01f.jpgTU-Eindhoven: Mini Jamboree 2024 Aftermovie (2024) [English]The aftermovie of the 2024 iGEM Mini Jamboree in Eindhoven. This annual event takes place after the Wiki Freeze and just before the Grand Jamboree in Paris. It offers iGEM teams from the Netherlands, Belgium, Germany, and Luxembourg a valuable opportunity to present their projects in front of a knowledgeable audience, receive feedback, and connect with other synthetic biology enthusiasts. The day includes team presentations, company talks, an interactive quiz or game, a poster session, and plenty of opportunities to network and learn from each other. We look forward to an inspiring and energetic day filled with science, feedback, and fun! https://2024.igem.wiki/tu-eindhoven/https://static.igem.org/peertube/streaming-playlists/hls/4f0e0499-99c8-48f1-8e96-ccb23d1aaebc/52682157-01a6-4cd1-a5b4-f8e440d2c1c4-master.m3u8https://video.igem.org/videos/embed/aLcqXpajE5biARsJYdNByy131042025-10-06T17:48:40.318ZYES2025 TeamsNOhttps://video.igem.org/w/kPjkvzuM8o2wgktMkV7F7xhttps://video.igem.org/lazy-static/thumbnails/9572f750-63b7-46aa-8863-0c131752ff54.jpgHeidelberg: Idea Competition (2025) [English]Our video for the Idea Competition. https://static.igem.org/peertube/streaming-playlists/hls/a078e455-2b6d-45ea-a440-fd13a5cddbd7/f7e64bfa-5a01-4dec-b45d-bb9f73d923aa-master.m3u8https://video.igem.org/videos/embed/kPjkvzuM8o2wgktMkV7F7x605102025-10-06T18:47:08.341ZigemphoenicsigemheidelbergYES2025 TeamsNOhttps://video.igem.org/w/2nzq8qHfa2E6TEvprXvhqchttps://video.igem.org/lazy-static/thumbnails/5ad24fc7-0c4b-4109-80c1-0f8a3442ea13.jpgSYPHU-CHINA: Homologous_Recombination_HQ (2025) [English]SYPHU-CHINA: Homologous_Recombination_HQ (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/0b1c59e6-6972-430b-a6a7-9f09fe7d6193/57f54702-1b01-4ecc-a540-0dd71d26d32d-master.m3u8https://video.igem.org/videos/embed/2nzq8qHfa2E6TEvprXvhqc770212025-10-07T00:45:40.435ZYES2025 TeamsNOhttps://video.igem.org/w/cK2feh6xnRxPAeZCAeEdMDhttps://video.igem.org/lazy-static/thumbnails/438ec27e-b1ee-4625-98f0-7b0a2b02a5f0.jpgSYPHU-CHINA: PCR_Amplification_HQ (2025) [English]SYPHU-CHINA: PCR_Amplification_HQ (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/5f16465b-38f2-4049-965a-418a1d52cf87/a33ad162-c363-4114-a896-ff48e7721b66-master.m3u8https://video.igem.org/videos/embed/cK2feh6xnRxPAeZCAeEdMD1300252025-10-07T00:46:23.738ZYES2025 TeamsNOhttps://video.igem.org/w/4ppgpCuvXdikbHrMQhBRTPhttps://video.igem.org/lazy-static/thumbnails/b526633e-d58f-4392-acb5-2c537d97240b.jpgSYPHU-CHINA: Plasmid_Extraction_HQ (2025) [English]SYPHU-CHINA: Plasmid_Extraction_HQ (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/1b8fdc53-c19c-462f-a2c0-d627a633c2d9/e069a0ba-e21e-498d-9376-bf94e1283fe0-master.m3u8https://video.igem.org/videos/embed/4ppgpCuvXdikbHrMQhBRTP1080102025-10-07T00:47:02.746ZYES2025 TeamsNOhttps://video.igem.org/w/dwLAzkVgPuHw94HZLEUbMDhttps://video.igem.org/lazy-static/thumbnails/2b8d793c-15fb-4fa1-87a1-d37bac4a3e70.jpgPeking - Music (2025} [English]We composed lyrics, depicting the suffering of a patient infected with Helicobacter pylori in the stomach, our engineered yeast entering the stomach, breaking through the barrier (passing through the mucus layer with the help of micro-motors) and ultimately killing Helicobacter pylori, and the patient regaining hope for life. <Lyrics> (Verse 1) A barren garden, deep inside of me Where graying vines won't set my spirit free A tangled knot that tightens day by day A silent ache that never goes away (Verse 2) A single vessel, through an acid sea It holds a secret, descending silently A quiet pilgrim on a winding quest To find the echo, and to pass the test (Chorus - Climax) And when it senses that familiar sign A silent war begins along the line The ancient lock is shattered by the key A cleansing light, for all the world to see! (Bridge) The storm subsides, the shadows start to fray A gentle warmth begins to light the way The knot unravels, tension starts to cease A quiet promise of a coming peace (Outro) And see, the garden, waking from its sleep The first new blossom, secrets it will keep A gentle quiet, beautifully clear The echo of the storm is no longer here. https://static.igem.org/peertube/streaming-playlists/hls/657975d9-cb7d-488f-bdb2-4e9524dbcb7f/eb1cbe61-1770-4ea0-8a69-8c998352007e-master.m3u8https://video.igem.org/videos/embed/dwLAzkVgPuHw94HZLEUbMD229082025-10-06T19:28:00.550ZYES2025 TeamsNOhttps://video.igem.org/w/3Y4vmVAFew3nRqjXwKSZiChttps://video.igem.org/lazy-static/thumbnails/15ccab63-f95a-4971-9591-a324ea949c7e.jpgDTU-Denmark: NomNomNylon: towards a sustainable future for nylon waste (2025) - Team Presentation...**Title:** NomNomNylon: towards a sustainable future for nylon waste **Description:** Fast fashion has fueled the accumulation of synthetic textile waste, with nylon being one of the most persistent and least recycled materials. NomNomNylon presents a bio-upcycling approach that couples enzymatic pretreatment with microbial valorisation to turn nylon waste into value-added products. By engineering, as well as mining naturally occurring nylon-degrading enzymes, the team enhances enzymatic breakdown of nylon into smaller fragments. These are then metabolised by an engineered Pseudomonas putida strain to produce indigoidine, a sustainable blue pigment that offers an alternative to petrochemical indigo. Combining biotechnology, protein engineering, and circular design, the DTU Biobuilders demonstrate how synthetic biology can transform waste into valuable products. [Wiki](https://2025.igem.wiki/dtu-denmark) | [Official Page](https://teams.igem.org/5568)https://static.igem.org/peertube/streaming-playlists/hls/180616d7-7018-4760-838c-b144b2d75202/00bffdf7-c837-44ba-b2d9-69a3ca4c8501-master.m3u8https://video.igem.org/videos/embed/3Y4vmVAFew3nRqjXwKSZiC8840852025-10-09T09:26:34.054ZYES2025 PresentationsNOhttps://video.igem.org/w/weQFFFoNUAaDVkgvABsnfHhttps://video.igem.org/lazy-static/thumbnails/9736b969-c392-4513-9a08-6be312a6c8b1.jpgToronto: Mystiphage Demo Week (2025) [English]This is the iGEM Toronto team's business pitch recording, which demonstrates the entrepreneurial aspects of our project, Mystiphage. It was done with the help of the University of Toronto's NEST Hatchery program during the summer of 2025. More information about our project can be found on our team's wiki here: https://igem.skule.ca/wiki-2025/https://static.igem.org/peertube/streaming-playlists/hls/f4e0d4de-7665-45ba-8a20-6e5d639a0b89/f8f7ab5a-e597-44ab-9c62-895c79ef1ca3-master.m3u8https://video.igem.org/videos/embed/weQFFFoNUAaDVkgvABsnfH4580612025-10-09T08:16:10.304Zbusiness pitchAIphage therapyentrepreneurshipYES2025 TeamsNOhttps://video.igem.org/w/pdYCVPKmbBrbCZCv6NAn9Khttps://video.igem.org/lazy-static/thumbnails/8859cc4f-e2a8-42d3-b7de-a0b99897443b.jpgNEFU-China: Breaking Lignin's Code:A Climate Solution Hidden in Straw (2025) - Team Presentation ...**Title:** Breaking Lignin's Code:A Climate Solution Hidden in Straw **Description:** This project addresses two key challenges as its background: the climate crisis exacerbated by open straw burning— which wastes hard-to-decompose yet valuable lignin, pollutes the air, and harms health—and the unsustainability of traditional petroleum-based paracetamol production.Its core design adopts an "electrochemistry + biotechnology" integration, first using electrochemical methods to break down straw lignin into benzene-ring-containing monomers that are then converted to high-purity vanillic acid via specific enzymes, and then building a biosynthetic pathway in E. coli to turn vanillic acid into AAP through substrate substitution (replacing chorismic acid with vanillic acid in a microbial pathway), metabolic optimization.The project achieved positive results, successfully constructing a functional biosynthetic pathway for AAP from vanillic acid in E. coli, verifying the feasibility of lignin’s green conversion to high-value chemicals and realizing controllable production of the target product.For Human Practice (HP), the team grounded the project in real needs and promoted knowledge sharing by conducting public surveys on climate crisis and straw burning awareness, participating in expert exchange conferences to gather feedback, and holding outreach activities to connect with the public and popularize synthetic biology, while aligning the project with sustainable development concepts. [Wiki](https://2025.igem.wiki/nefu-china) | [Official Page](https://teams.igem.org/5974)https://static.igem.org/peertube/streaming-playlists/hls/bc12049c-f15a-4ac7-8271-368ace5f047f/80820b0b-3997-4d37-933c-1fbdb35c409e-master.m3u8https://video.igem.org/videos/embed/pdYCVPKmbBrbCZCv6NAn9K8800212025-10-13T11:04:38.327ZYES2025 PresentationsNOhttps://video.igem.org/w/ui32iaEhctpKHRh3CWafMqhttps://video.igem.org/lazy-static/thumbnails/8e60df13-0144-422d-8a84-650fbd9cd253.jpgBANZ-SZA: Sweetness without burden (2025) - Team Presentation [English]**Title:** Sweetness without burden **Description:** As the world places increasing emphasis on health and sugar control, sugar-free recipes have sparked a trend across major platforms. The global "SugarSmart" initiative has also been launched, leading to growing discussions and use of sugar substitutes. In our project, we employed genetic engineering techniques to develop microbial strains that produce Thaumatin, a protein-based sweetener. Thaumatin is a natural sweet-tasting protein—a low-calorie, plant-derived sweetener—meaning this technology holds promise for alleviating health issues caused by sugar consumption. Through experiments, we tested the protein's activity under various conditions, thereby validating the feasibility of applying this technology in practice. In the future, our project could be developed into sugar-reducing food products to help people maintain better health. [Wiki](https://2025.igem.wiki/banz-sza) | [Official Page](https://teams.igem.org/5743)https://static.igem.org/peertube/streaming-playlists/hls/e520c5db-b4fa-4c24-9451-c6e1d8aa9d0a/7009e4aa-73a1-4a66-b9a6-31d30176ba64-master.m3u8https://video.igem.org/videos/embed/ui32iaEhctpKHRh3CWafMq9020232025-10-13T10:38:09.372ZYES2025 PresentationsNOhttps://video.igem.org/w/kTuWXqrQFErsBFkxf1v2a9https://video.igem.org/lazy-static/thumbnails/1783a9f8-f0bb-4584-a57a-3daac577fea1.jpgNACIS SHANGHAI: CaroteneCraft: Synthetic Biology for Vision Protection (2025) - Team Presentation...**Title:** CaroteneCraft: Synthetic Biology for Vision Protection **Description:** The World Health Organization reports that at least 1 billion of the 2.2 billion people with vision impairment have preventable or unaddressed conditions. Visual health problems such as dry eyes, night blindness, and myopia are increasingly prevalent, particularly in East Asia. To address this, we engineered Saccharomyces cerevisiae to biosynthesize β-carotene de novo using CRISPR-Cas9, achieving a titer of 128.1 mg/L. Through spatial metabolic engineering, we localized carB and carRP to lipid droplets, increasing production to 318.4 mg/L. A color-based monitoring hardware enabled automated process control, and 5-L bioreactor optimization further elevated yield to 1.8 g/L. Guided by human practices, we engaged over 30 stakeholders across research and industry. Through education initiatives featuring AI-powered content, games, and community programs, we reached more than 30,000 participants. To commercialize, we created POCO, a youth-oriented personal care brand that transforms our synthetic biology achievements into a scalable and sustainable solution for vision health. [Wiki](https://2025.igem.wiki/nacis-shanghai) | [Official Page](https://teams.igem.org/5753)https://static.igem.org/peertube/streaming-playlists/hls/a10e6806-4f42-47f7-b03d-9a8023d3a2be/861aac5f-c413-41c8-a61b-ac3522547c4e-master.m3u8https://video.igem.org/videos/embed/kTuWXqrQFErsBFkxf1v2a98260102025-10-13T10:41:26.784ZYES2025 PresentationsNOhttps://video.igem.org/w/oujcNNV8rzn83CPaoJXou5https://video.igem.org/lazy-static/thumbnails/799c3841-652e-4828-be42-65a49c1c3d2b.jpgHongKong-HS: ColoTrace: Innovative Toehold Switch for miRNA Detection in Colorec... (2025) - Team...**Title:** ColoTrace: Innovative Toehold Switch for miRNA Detection in Colorectal cancer **Description:** This presentation video introduces our team, Hongkong-HS, the development of a user-friendly detection kit to detect colorectal cancer (CRC) using a novel toehold switch on specific microRNAs in faecal samples. This innovative and domestic testing method enhances early detection and personalized medicine by providing a sensitive and non-invasive alternative to traditional tests. With a focus on convenience, specificity, and community impact, we aim to make a positive contribution to global health and raise awareness of CRC. [Wiki](https://2025.igem.wiki/hongkong-hs) | [Official Page](https://teams.igem.org/5600)https://static.igem.org/peertube/streaming-playlists/hls/b61d182c-734a-435b-9a77-4a1ae751d82c/7cbfbcfb-1ae5-436b-b5ea-396e11407081-master.m3u8https://video.igem.org/videos/embed/oujcNNV8rzn83CPaoJXou58660692025-10-13T12:26:23.481ZYES2025 PresentationsNOhttps://video.igem.org/w/cQ5Nw5uUNVX5yP3jB4KfrYhttps://video.igem.org/lazy-static/thumbnails/371af876-9159-4528-88b2-1d2571f00590.jpgKorea-HS: Fruit Peel Degradation Using Engineered Lactobacillus reuteri Expressi... (2025) - Team...**Title:** Fruit Peel Degradation Using Engineered Lactobacillus reuteri Expressing Polygalacturonase (PGXc) **Description:** This item is the presentation video to the iGEM project "Fruit Peel Degradation Using Engineered Lactobacillus reuteri Expressing Polygalacturonase (PGXc)" produced by Team Korea-HS. [Wiki](https://2025.igem.wiki/korea-hs) | [Official Page](https://teams.igem.org/5773)https://static.igem.org/peertube/streaming-playlists/hls/5fcb2f82-7e43-498b-ac4f-3792fe0a2b22/df82c171-5cec-4281-b556-04b68208d402-master.m3u8https://video.igem.org/videos/embed/cQ5Nw5uUNVX5yP3jB4KfrY8380222025-10-13T10:14:27.362ZYES2025 PresentationsNOhttps://video.igem.org/w/ihPKMrkMNXt8YfJLhNdLLthttps://video.igem.org/lazy-static/thumbnails/fb3a1255-e76d-41a9-b185-bf82f5803f2d.jpgXJTLU-Science-China: Engineering Bacteria to Target Triple-Negative Breast Cancer (2025) - Team P...**Title:** Engineering Bacteria to Target Triple-Negative Breast Cancer **Description:** Cancer arises from genetic errors leading to uncontrolled cell growth. Current therapies like chemo and radiation damage healthy tissue. We exploit a surprising discovery: commensal bacteria naturally reside within tumors and influence cancer progression. Targeting the aggressive Triple-Negative Breast Cancer (TNBC), which lacks key receptors for conventional therapies, our iGEM team engineers Staphylococcus epidermidis and xylosus. By equipping them with the invasion-boosting Fnbp protein from S. aureus, we transform these bacteria into precise vectors for delivering future cancer treatments directly to TNBC cells. [Wiki](https://2025.igem.wiki/xjtlu-science-china) | [Official Page](https://teams.igem.org/5636)https://static.igem.org/peertube/streaming-playlists/hls/8c04b002-3b55-4130-8a9b-d2bb71482703/6a2a0969-8975-4a4d-bdb9-bdff924a1b9b-master.m3u8https://video.igem.org/videos/embed/ihPKMrkMNXt8YfJLhNdLLt9030652025-10-13T10:22:52.477ZYES2025 PresentationsNOhttps://video.igem.org/w/7SKDKrvnrZ7xPnStjivxXchttps://video.igem.org/lazy-static/thumbnails/b5a464e3-0b02-4923-b809-4724cdbf9934.jpgShanghai-Explore: PlasmoProtectors | Innovating Plant Protection with E. coli (2025) - Team Prese...**Title:** PlasmoProtectors | Innovating Plant Protection with E. coli **Description:** Our team tackled the challenges of bacterial plant diseases, chemical resistance, and environmental pollution by reprogramming Escherichia coli into a “cell factory” using synthetic biology. Through the introduction of PtsG, FabH, and GlnA genes, we created a pathway that converts glucose → acetyl-CoA → erucic acid → erucamide, a compound that enhances plant disease resistance. To deliver these engineered bacteria, we developed ErucaBead—a fast-dissolving, biodegradable PVA bead that protects the bacteria and improves soil health. Beyond the lab, our project integrates human practices, field experimentation, and community engagement, ensuring our solution is both scientifically robust and socially responsible—an approach that combines innovation with real-world impact. [Wiki](https://2025.igem.wiki/shanghai-explore) | [Official Page](https://teams.igem.org/5889)https://static.igem.org/peertube/streaming-playlists/hls/37acebd6-f024-464a-8a39-7db1992bea75/fcf9ba19-3139-4ebf-ab2f-d3087d4c4a86-master.m3u8https://video.igem.org/videos/embed/7SKDKrvnrZ7xPnStjivxXc8050112025-10-13T10:20:22.710ZYES2025 PresentationsNOhttps://video.igem.org/w/sj3ezD9RNu1mB5MqvRimm8https://video.igem.org/lazy-static/thumbnails/bb8dea4b-cbd3-4573-a92e-a8f77369cb12.jpgJLU-CP: Tuneable Dream Drive (2025) - Team Presentation [English]**Title:** Tuneable Dream Drive **Description:** Tuneable Dream Drive: To address sleep disorders caused by circadian rhythm disruption during space missions, the JLU-CP team engineered a multi-layer regulatory melatonin synthesis system using Escherichia coli Nissle 1917 (EcN) as a chassis. This system integrates a red-light-controlled genetic circuit with the serine recombinase Bxb1, enabling reversible promoter inversion to switch between serotonin production and melatonin biosynthesis. A pharmacokinetic (PK) model optimized dosage under simulated microgravity, while deep-learning-driven enzyme engineering enhanced HsAANAT catalytic efficiency. We then built an expression model to predict melatonin yield under light conditions for controllable production. For biosafety, the design includes a hypoxia-activated toxin–antitoxin module and tryptophan-auxotrophic safeguard. Additionally, we developed iTutor, the most inclusive-iGEM LLM trained on iGEM Wiki, PubMed, and arXiv data, provides real-time computational and experimental guidance. This engineered probiotic functions as a gut-colonizing “biological clock calibrator,” enabling precise, red-light-induced melatonin release to support astronauts’ circadian health during spaceflight. [Wiki](https://2025.igem.wiki/jlu-cp) | [Official Page](https://teams.igem.org/5567)https://static.igem.org/peertube/streaming-playlists/hls/d5125eae-e605-439c-bc94-981d401d2bb7/f40d30fc-9db8-4dda-8ffe-1e3c1cc4e57e-master.m3u8https://video.igem.org/videos/embed/sj3ezD9RNu1mB5MqvRimm88875342025-10-13T10:27:06.641ZYES2025 PresentationsNOhttps://video.igem.org/w/dwmL3NTU7TA6Q5bc1RGqPthttps://video.igem.org/lazy-static/thumbnails/07380b65-31cd-44ce-9deb-ac112041355f.jpgHS-Beta: Developing a self-protecting, peptide-presenting and self-eliminating E... (2025) - Team...**Title:** Developing a self-protecting, peptide-presenting and self-eliminating EcN (PPSE) **Description:** The microbiome plays multiple functional roles in human health, sparking interest in utilizing probiotics for disease treatment. As microorganisms can be engineered into intelligent living drugs capable of sensing and responding to their environment, they can colonize the gastrointestinal tract, oral cavity, skin, lungs, and tumors to locally deliver therapeutic agents or transport antigens to activate immune responses. However, bacterial toxicity may limit the dosage and efficacy of engineered bacteria. Therefore, we integrated a microbial encapsulation system, an antigen (drug) delivery platform, and a suicide switch within EcN to construct an engineered EcN system capable of self-protection, peptide drug-presentation, and self-elimination (PPSE). [Wiki](https://2025.igem.wiki/hs-beta) | [Official Page](https://teams.igem.org/5821)https://static.igem.org/peertube/streaming-playlists/hls/656ac53e-c306-4840-9610-1a2569832231/c4bd3a08-80e2-4427-9e67-a7de3d42ce48-master.m3u8https://video.igem.org/videos/embed/dwmL3NTU7TA6Q5bc1RGqPt8980122025-10-13T08:27:59.475ZYES2025 PresentationsNOhttps://video.igem.org/w/sPnvMMpQsr5P4HefMSX2wehttps://video.igem.org/lazy-static/thumbnails/d815ab4a-8995-467b-a6ee-e73f1207eac7.jpgHS-Alpha: BioScent: Transforming Lignin Waste into Vanillin through Synthetic Bi... (2025) - Team...**Title:** BioScent: Transforming Lignin Waste into Vanillin through Synthetic Biology **Description:** Our daily lives depend heavily on paper, yet its production and recycling processes inevitably lead to significant lignin waste. We aimed to harness synthetic biology to transform these wasted resources into valuable products. After extensive consultations with experts in policy, industry, and experimental technologies, we engineered Escherichia coli to convert ferulic acid—a representative lignin degradation product—into high-value compounds. We first demonstrated that E. coli could be adapted, via laboratory-accelerated adaptive evolution, to tolerate simulated lignin degradation liquor. Subsequently, by introducing two key enzymes, CtFCS and CUS, into E. coli, we successfully achieved the bioconversion of ferulic acid into vanillin. Our approach features modularity, transferability, and cost efficiency, making it not only technically feasible but also highly promising for practical application. It highlights the potential of engineered microbes as green and efficient tools for resource recovery, contributing meaningfully to the advancement of circular bioeconomy and sustainable development. [Wiki](https://2025.igem.wiki/hs-alpha) | [Official Page](https://teams.igem.org/5820)https://static.igem.org/peertube/streaming-playlists/hls/d92ad211-b5fe-487f-8435-575833b90fd5/9e1eb25b-b4bb-497a-8450-678fa145a12a-master.m3u8https://video.igem.org/videos/embed/sPnvMMpQsr5P4HefMSX2we6870152025-10-13T09:15:28.145ZYES2025 PresentationsNOhttps://video.igem.org/w/3c48XJmqkfnExq1F6Y5GJ1https://video.igem.org/lazy-static/thumbnails/e32d6432-60fd-4e1e-b897-7c20ff98b50f.jpgUCalgary: Rumino - The Future of Testing. Anywhere. (2025) - Team Presentation [English]**Title:** Rumino - The Future of Testing. Anywhere. **Description:** Rumino is a portable, sequence-specific test for avian influenza. We showcase our sensor/modelling build, RumiVec validation, safety framework, entrepreneurship plan, and human practices impact. [Wiki](https://2025.igem.wiki/ucalgary) | [Official Page](https://teams.igem.org/5980)https://static.igem.org/peertube/streaming-playlists/hls/11bd6466-c07a-4994-8583-b82b3203f924/1ff531e9-37a0-4236-8685-ced69146e7c1-master.m3u8https://video.igem.org/videos/embed/3c48XJmqkfnExq1F6Y5GJ19010212025-10-13T09:48:37.688ZYES2025 PresentationsNOhttps://video.igem.org/w/48Gf6eBqY1eLVwoGM6Udg7https://video.igem.org/lazy-static/thumbnails/f3534ee6-ee32-415e-aef7-6ef7db0a48aa.jpgUM-Macau: UM Macau Exterminatrix (2025) - Team Presentation [English]**Title:** UM Macau Exterminatrix **Description:** This 15 minute project video contains the iimportant features of the iGEM project conducted by the UM-Macau 2025 team. The video captures the goals and strategies implemented to solve an important global problem utilizing synthetic biology approaches. This video is divided into three segments, each explaining the Wet Lab, Dry Lab and Integrated Human Practice efforts fostered by the team. Each segment contains a brief summary of the team's efforts narrated by the team members. In the video, each and every team member, including those not traveling to Paris can be seen and heard presenting their contributions to the project. [Wiki](https://2025.igem.wiki/um-macau) | [Official Page](https://teams.igem.org/5698)https://static.igem.org/peertube/streaming-playlists/hls/195e6c47-1cb5-44fc-9995-11adfdf4b8ac/0566ad27-0842-412f-9a5b-748831dedb52-master.m3u8https://video.igem.org/videos/embed/48Gf6eBqY1eLVwoGM6Udg78640232025-10-13T09:07:04.159ZYES2025 PresentationsNOhttps://video.igem.org/w/1D6RpdXvPcB92or2rqaVMihttps://video.igem.org/lazy-static/thumbnails/1d19e89c-9f38-4191-9e7e-3e724f8bed10.jpgDEPU: A Pichia pastoris factory for efficient production of lipase (2025) - Team Presentation [En...**Title:** A Pichia pastoris factory for efficient production of lipase **Description:** With the intensification of the energy crisis and the rising demand for environmental protection, biodiesel, as a clean energy source, has attracted much attention. Every year, our country generates hundreds of millions of tons of waste oils such as used cooking oil. If not handled properly, it may cause food safety and environmental risks. The traditional chemical method for producing biodiesel has problems such as high energy consumption and pollution; while the biological enzyme method, with advantages like environmental friendliness and mild conditions, has become a new direction, but it also has disadvantages such as low enzyme activity and high cost. This project aims to improve the reaction efficiency and stability of the biological enzyme method, converting waste oils into environmentally friendly biodiesel, contributing to the "dual carbon" goal, promoting the transformation of the energy structure and sustainable development. [Wiki](https://2025.igem.wiki/depu) | [Official Page](https://teams.igem.org/5790)https://static.igem.org/peertube/streaming-playlists/hls/052e2030-fb7f-4ac1-8173-a30ba8b588ff/8bbc69df-d6eb-4d06-b11a-27937573ec88-master.m3u8https://video.igem.org/videos/embed/1D6RpdXvPcB92or2rqaVMi8980392025-10-13T09:11:50.325ZYES2025 PresentationsNOhttps://video.igem.org/w/sZLZ3SWBjf7zQP7Cs8j9HEhttps://video.igem.org/lazy-static/thumbnails/365dd1d2-b856-4016-896f-b96bc45de4bd.jpgSubCat-Greatbay: Four-in-one Dual-signal Amplification Nanoflower – Smartphone-p... (2025) - Team...**Title:** Four-in-one Dual-signal Amplification Nanoflower – Smartphone-powered Ultra-sensitive Detection of Bacteria **Description:** We plan to develop a special "nanoflower" capable of rapidly and accurately detecting bacteria. This nanoflower has two key functions: first, it uses "phage tail fiber proteins" to precisely bind to bacteria; second, its interior contains peroxidase, enabling a colorimetric reaction. The large specific surface area of the nanoflower and the gold-platinum nanoparticles amplifies the signal, making the detection result more pronounced. Afterwards, a dedicated mobile app can scan the colorimetric result and analyze the RGB values to directly determine the presence of bacteria. [Wiki](https://2025.igem.wiki/subcat-greatbay) | [Official Page](https://teams.igem.org/5736)https://static.igem.org/peertube/streaming-playlists/hls/da9eb8e1-3eca-4c3d-90d5-19952c60fa10/ec68dfb0-a058-40c9-9100-05833e9f1d7f-master.m3u8https://video.igem.org/videos/embed/sZLZ3SWBjf7zQP7Cs8j9HE8570272025-10-13T09:33:00.223ZYES2025 PresentationsNOhttps://video.igem.org/w/sppAj5bzm5hzuP2czPRbfVhttps://video.igem.org/lazy-static/thumbnails/7284e553-eea1-4404-a49e-1a5fe5ab1ce5.jpgShenfan-China: RumenSynth: Bionic Micro-Ecological Catalytic System Reshaping th... (2025) - Team...**Title:** RumenSynth: Bionic Micro-Ecological Catalytic System Reshaping the New Paradigm of Global Biomass Refining **Description:** Lignocellulose is a highly promising renewable resource, but its complex structure hinders degradation. The rumen of ruminants represents a naturally efficient degradation system. This study employed rumen-mimicking microbiota to ferment corn straw in a semi-continuous reactor for volatile fatty acid (VFA) production. Results showed that after 72 hours, VFA concentration reached 8.99 g/L, with hemicellulose, cellulose, and lignin degradation rates of 54.3%, 40.2%, and 8.61%, respectively. At corn straw loading rates of 2.5%, 5.0%, and 8.0%, average VFA concentrations were 8.5, 11.1, and 13.3 g/L, respectively. Metagenomic analysis indicated that low pH and VFA accumulation were the main factors affecting microbial communities, while core genera remained stable. This study provides a theoretical basis for the resource utilization of biomass waste. [Wiki](https://2025.igem.wiki/shenfan-china) | [Official Page](https://teams.igem.org/5997)https://static.igem.org/peertube/streaming-playlists/hls/d5d2402d-ac42-4b32-abf6-e27edc83f241/83961919-1a22-47f3-8769-d4a0af134c81-master.m3u8https://video.igem.org/videos/embed/sppAj5bzm5hzuP2czPRbfV8810132025-10-13T09:53:03.693ZYES2025 PresentationsNOhttps://video.igem.org/w/bPkaJLGm3DpT9tjWwuW2dzhttps://video.igem.org/lazy-static/thumbnails/231865cd-40f0-4f05-982d-73708b6c26b5.jpgHangzhou-SDG: CatWell: Oral Peptide Contraceptive System for Humane Feral Cat Co... (2025) - Team...**Title:** CatWell: Oral Peptide Contraceptive System for Humane Feral Cat Control **Description:** As urban feral cat populations continue to grow, ecological balance, public health, and animal welfare are increasingly threatened. To address this, we designed an oral contraceptive peptide based on a sequence-modified cyclized GnRH antagonist that competitively blocks reproductive hormone signaling without affecting animal health. By optimizing peptide stability through sequence modification and disulfide ring formation, and co-administering with SNAC to enhance gastrointestinal absorption, we enable effective oral delivery. For safe and precise administration, we designed CatWell, an AI-powered smart feeder that provides controlled daily dosing to individual feral cats. Together, this integrated system offers a humane, scalable, and non-surgical solution for feral cat population control. [Wiki](https://2025.igem.wiki/hangzhou-sdg) | [Official Page](https://teams.igem.org/5990)https://static.igem.org/peertube/streaming-playlists/hls/5797280b-1f90-4fd0-a658-b1247012b86d/92cba8e2-7096-455f-a6d3-658bdf94a68d-master.m3u8https://video.igem.org/videos/embed/bPkaJLGm3DpT9tjWwuW2dz7240142025-10-13T09:54:49.470ZYES2025 PresentationsNOhttps://video.igem.org/w/1PjkZ9hdDYXM9MsEy7cPophttps://video.igem.org/lazy-static/thumbnails/eaf49231-8af1-4890-bddc-517fb1d5651e.jpgChalmers-Gothenburg: LATCH (2025) - Team Presentation [English]**Title:** LATCH **Description:** Learn more about iGEM Gothenburg-Chalmers project LATCH, and how it's team members fought to end fungal infections. [Wiki](https://2025.igem.wiki/chalmers-gothenburg) | [Official Page](https://teams.igem.org/5796)https://static.igem.org/peertube/streaming-playlists/hls/069b432e-ea8f-4d13-b27b-be2870311847/a76cf3ab-1bba-4de8-b9c3-c26d748624d3-master.m3u8https://video.igem.org/videos/embed/1PjkZ9hdDYXM9MsEy7cPop9030172025-10-13T11:38:34.287ZYES2025 PresentationsNOhttps://video.igem.org/w/6LwgMCiT9HpNhsS6tdzNwohttps://video.igem.org/lazy-static/thumbnails/e9910166-d5fc-4d54-a98b-6e0243fba1c9.jpgUppsalaUniversity: Agalith: When Algae Stick Together (2025) - Team Presentation [English]**Title:** Agalith: When Algae Stick Together **Description:** Imagine being able to command algae to come together. We examine how synthetic biology can make that concept a reality in Agalith. This is our journey of creating inducible flocculation, from unsuccessful cloning to unveiling proteins, and discovering that science, like algae, thrives on collaboration. [Wiki](https://2025.igem.wiki/uppsalauniversity) | [Official Page](https://teams.igem.org/5749)https://static.igem.org/peertube/streaming-playlists/hls/2eb51338-2e60-4dbc-9a69-127285f94d62/e51c3c9d-c14e-462b-a1cb-01cd0f670e87-master.m3u8https://video.igem.org/videos/embed/6LwgMCiT9HpNhsS6tdzNwo7280262025-10-13T14:20:53.368ZYES2025 PresentationsNOhttps://video.igem.org/w/ego1NEh4krv2PTSFqRarXshttps://video.igem.org/lazy-static/thumbnails/1d9b4eac-0b42-4eb1-a4dc-26c2a52a2c6c.jpgRPTU-Kaiserslautern: SUSPACT - Sustainable Use of Synthetically Produced Antibod... (2025) - Team...**Title:** SUSPACT - Sustainable Use of Synthetically Produced Antibodies for Cancer Treatment **Description:** At RPTU Kaiserslautern, we are exploring how to revolutionize biopharmaceutical production. Using Chlamydomonas reinhardtii, a green microalga, we apply synthetic biology to create a sustainable platform for producing complex medicines like therapeutic antibodies used in cancer therapy. Our approach offers a promising alternative to conventional methods, reducing costs and environmental impact. Through this project, we aim to make life-saving therapies more accessible worldwide, proving that science and innovation can build a greener future. [Wiki](https://2025.igem.wiki/rptu-kaiserslautern) | [Official Page](https://teams.igem.org/5758)https://static.igem.org/peertube/streaming-playlists/hls/6b6c8691-9f0b-48fc-b416-a049a0373d4c/1912b161-896a-4efd-8c4a-b19b661bdabf-master.m3u8https://video.igem.org/videos/embed/ego1NEh4krv2PTSFqRarXs8980162025-10-13T14:44:10.038ZYES2025 PresentationsNOhttps://video.igem.org/w/rR3VwV7fbRv2p9CobvVCWshttps://video.igem.org/lazy-static/thumbnails/7e52fa17-cd6b-428c-9964-7dffd30067dc.jpgZEOLYM: CerviX Spy: CRISPR-Powered Home Screening for Cervical Cancer (2025) - Team Presentation ...**Title:** CerviX Spy: CRISPR-Powered Home Screening for Cervical Cancer **Description:** CerviX Spy is an innovative point-of-care testing (POCT) platform integrating CRISPR-Cas13a technology and microfluidics for early cervical cancer screening. Targeting the host-derived biomarker miR-155 - a key oncogenic miRNA upregulated in precancerous lesions—the system employs a modular toehold switch probe that undergoes conformational change upon target binding, activating a T7 promoter to transcribe sgRNA. This triggers Cas13a-mediated cis-cleavage of target RNA and collateral trans-cleavage of fluorescent reporters, enabling pM-level detection under isothermal conditions (37 ℃). Validated via rigorous DBTL (Design-Build-Test-Learn) cycles, the biosensor achieves single-base specificity and pM sensitivity, overcoming limitations of traditional HPV-DNA assays (e.g., inability to distinguish transient vs. oncogenic infections). Encapsulated in the user-friendly "CerviSure Scanner" - a 3D-printed, disposable microfluidic device - the system supports decentralized, non-invasive screening with rapid results (<60 min). This platform promises to reduce healthcare disparities by enabling accessible, high-accuracy screening in low-resource settings, advancing global cervical cancer elimination efforts. [Wiki](https://2025.igem.wiki/zeolym) | [Official Page](https://teams.igem.org/5987)https://static.igem.org/peertube/streaming-playlists/hls/d14db66b-c8ad-47fb-9d58-872473cba03e/267ef728-a975-4d7c-80e1-9b50ae27feb8-master.m3u8https://video.igem.org/videos/embed/rR3VwV7fbRv2p9CobvVCWs9010112025-10-13T15:20:31.780ZYES2025 PresentationsNOhttps://video.igem.org/w/ifZZx716dkvv9dzT2ZPeL3https://video.igem.org/lazy-static/thumbnails/10f6ddca-e914-4de6-a173-886f564ce6f4.jpgSaint-Joseph: GluClear (2025) - Team Presentation [English]**Title:** GluClear **Description:** GluClear addresses the challenge of accidental gluten exposure, a major concern for individuals with celiac disease and gluten sensitivity. Our project focuses on Bga1903, a naturally gluten-degrading enzyme found in bacteria, and improves its stability and efficiency under gastrointestinal conditions through in silico modeling and protein engineering. By optimizing multiple variants and expressing them for experimental validation, GluClear aims to ensure reliable degradation of trace gluten introduced through cross-contamination. With this approach, GluClear has the potential to support a safer daily life for patients, offering a practical and innovative solution that reduces health risks and increases confidence in food safety. [Wiki](https://2025.igem.wiki/saint-joseph) | [Official Page](https://teams.igem.org/5704)https://static.igem.org/peertube/streaming-playlists/hls/8bc38243-8017-45c4-8718-bc6909476196/57e5bbcd-a41a-48ad-9fcb-11845a6e97a0-master.m3u8https://video.igem.org/videos/embed/ifZZx716dkvv9dzT2ZPeL38940272025-10-13T17:38:49.650ZYES2025 PresentationsNOhttps://video.igem.org/w/831Jg5iSJqtPBWfzZTeW7qhttps://video.igem.org/lazy-static/thumbnails/78e5c2c8-5246-4f88-9088-1f1f4f8a07de.jpgXJTLU-AI-China: Plaszyme: AI-Powered Discovery of Plastic-Degrading Enzymes (2025) - Team Present...**Title:** Plaszyme: AI-Powered Discovery of Plastic-Degrading Enzymes **Description:** Plastic pollution represents a growing global crisis, while biodegrading enzymes provide a sustainable route to plastic recycling. To accelerate enzyme identification, Plaszyme integrates AI-based models that learn from both biological and chemical representations to predict enzyme–polymer interactions with interpretability and precision. Our framework combines machine learning classifiers and structure-aware dual-tower neural networks, enabling multi-level prediction from amino acid sequences to 3D enzyme–polymer compatibility. A lightweight Web App offers browser-based batch prediction, visualization, and interpretability without local setup. In parallel, we curated and released PlaszymeDB, an open-access database compiling verified enzyme–plastic pairs, sequences, structures, and physicochemical descriptors under FAIR principles. Through continued development and open dissemination via iGEM and the Web App, Plaszyme establishes a unified resource for data-driven exploration of plastic biodegradation and sustainable material recycling. [Wiki](https://2025.igem.wiki/xjtlu-ai-china) | [Official Page](https://teams.igem.org/5580)https://static.igem.org/peertube/streaming-playlists/hls/38f7e83d-6dcb-426e-acbc-8498cee4df24/d83efcc6-75f8-41dc-92d0-ec040214f64f-master.m3u8https://video.igem.org/videos/embed/831Jg5iSJqtPBWfzZTeW7q8855202025-10-13T18:52:07.367ZYES2025 PresentationsNOhttps://video.igem.org/w/3C7U4wXn3XZ8FW1cH4WJCChttps://video.igem.org/lazy-static/thumbnails/99ea6708-8fab-43b6-852d-75d28cf1f642.jpgGuanghua-ShanghaiU: Modular attenuated vaccine development for sustainable aquac... (2025) - Team...**Title:** Modular attenuated vaccine development for sustainable aquaculture **Description:** Our iGEM project addresses the critical challenge of Pseudomonas plecoglossicida-induced visceral white spot disease in large yellow croaker, which causes annual industry losses exceeding ¥600 million due to high mortality rates (70–80%), while traditional antibiotic therapies exacerbate drug resistance and ecological harm. We employ an integrated computational-experimental strategy to develop a novel live attenuated vaccine. Starting with the CLEF model, we screen effector proteins, then validate candidates using engineered E. coli BL21(DE3). These virulence factors serve as vaccine targets. We also use C. elegans for preliminary toxicity and protection studies. Mathematical modeling simulates immune responses and economic impact, linking predictions with practical efficacy. Our goal is to establish an efficient antigen screening system to accelerate novel aquaculture vaccine development, offering a sustainable strategy to reduce disease prevalence and enhance productivity. [Wiki](https://2025.igem.wiki/guanghua-shanghaiu) | [Official Page](https://teams.igem.org/5991)https://static.igem.org/peertube/streaming-playlists/hls/153d4dc8-5980-49f8-b5ca-0b5b14ae9734/4cddd2f1-58fa-42ee-8a1b-5484881fc70d-master.m3u8https://video.igem.org/videos/embed/3C7U4wXn3XZ8FW1cH4WJCC8020132025-10-13T19:03:51.118ZYES2025 PresentationsNOhttps://video.igem.org/w/9DLjzXHiYw858zGYTHT5RDhttps://video.igem.org/lazy-static/thumbnails/1d497664-31ae-4afc-847d-8aa4a276b606.jpgHangzhou-MedX: The Salidroside Initiative: Protecting the Plateau and Every Hear... (2025) - Team...**Title:** The Salidroside Initiative: Protecting the Plateau and Every Heartbeat with Synthetic Biology **Description:** Cardiovascular diseases increasingly threaten young populations due to stress and unhealthy habits. Salidroside, a cardioprotective compound from Rhodiola rosea, shows antioxidant and anti-hypoxic effects but is difficult to source sustainably. To solve this, we engineered Escherichia coli to biosynthesize salidroside via an optimized tyrosol pathway and heterologous expression of a UDP-glucosyltransferase (UGT). In addition, we developed a whole-cell biosensor targeting 4-hydroxyphenylpyruvate (4HPP), a key intermediate in the microbial biosynthetic pathway of salidroside. By employing this sensor, we enhanced salidroside production through directed evolution. Our system provides an eco-friendly, scalable alternative to plant extraction, reducing pressure on fragile plateau ecosystems while supporting youth heart health through synthetic biology innovation. [Wiki](https://2025.igem.wiki/hangzhou-medx) | [Official Page](https://teams.igem.org/5989)https://static.igem.org/peertube/streaming-playlists/hls/460ef134-c76e-4e51-af69-f4daac9ddd37/5b546196-97ee-42d4-9990-9d8446cfff80-master.m3u8https://video.igem.org/videos/embed/9DLjzXHiYw858zGYTHT5RD6310172025-10-13T19:15:33.750ZYES2025 PresentationsNOhttps://video.igem.org/w/eRGGhwqxa4TqGrG3aKXWuAhttps://video.igem.org/lazy-static/thumbnails/34ae91ba-9dcf-41d8-9bc5-90dc5eac0d25.jpgInstitut-Le-Rosey-CH: Aptagenix: affordable, non-invasive non-small cell lung ca... (2025) - Team...**Title:** Aptagenix: affordable, non-invasive non-small cell lung cancer diagnosis **Description:** This is a 15-minute presentation video for the Institut-Le-Rosey team on the Aptagenix project: an affordable, non-invasive, and non-small cell lung cancer diagnosis. In this video, we describe our project, its functionality, our lab results, and the software and hardware our team has developed along the way. We also outline our educational efforts and explain how we ensure the project aligns with real-world applications through human-centered practices. Enjoy! [Wiki](https://2025.igem.wiki/institut-le-rosey-ch) | [Official Page](https://teams.igem.org/5601)https://static.igem.org/peertube/streaming-playlists/hls/70375383-ae61-42e6-9264-511014f8207a/8577b985-afbb-4ff8-ad1a-11da75a46b8b-master.m3u8https://video.igem.org/videos/embed/eRGGhwqxa4TqGrG3aKXWuA9030192025-10-13T19:30:52.847ZYES2025 PresentationsNOhttps://video.igem.org/w/uDjNTVyAMh5dZdrULHSbzwhttps://video.igem.org/lazy-static/thumbnails/49db5201-a859-4eff-a4a1-d6d0741c9273.jpgBUAP-Puebla: Surfactory (2025) - Team Presentation [English]**Title:** Surfactory **Description:** Premature newborns often struggle to breathe due to underdeveloped lungs, relying on pulmonary surfactant for survival. Current treatments are expensive, animal-derived, and inaccessible to many around the world. Our project harnesses synthetic biology to engineer microorganisms that produce key surfactant proteins, creating an affordable, scalable, and animal-free alternative. This sustainable approach not only addresses a critical medical need but also promotes ethical and equitable healthcare. We envision a future where every premature infant, regardless of location or resources, has access to life-saving treatment powered by innovation and responsibility. [Wiki](https://2025.igem.wiki/buap-puebla) | [Official Page](https://teams.igem.org/5575)https://static.igem.org/peertube/streaming-playlists/hls/e7f5fe3e-a4fa-4ed9-a1ae-df4f3ecb6760/c8387a99-940e-447b-8e23-a7b9eb12ea52-master.m3u8https://video.igem.org/videos/embed/uDjNTVyAMh5dZdrULHSbzw8310172025-10-13T23:28:32.558ZYES2025 PresentationsNOhttps://video.igem.org/w/uWmuWmySVjfoSZnW1pt76Whttps://video.igem.org/lazy-static/thumbnails/8b60b676-fead-497e-a532-ab86b21f35ad.jpgLethbridgeHS: RhizoRetention (2025) - Team Presentation [English]**Title:** RhizoRetention **Description:** Join the 2025 Lethbridge high school iGEM team to learn about their project RhizoRetention. [Wiki](https://2025.igem.wiki/lethbridgehs) | [Official Page](https://teams.igem.org/5677)https://static.igem.org/peertube/streaming-playlists/hls/ea56add0-b2f2-4a19-b3fb-ef22f2de01d8/5984989a-d80a-41b1-85aa-39faf4e5fc5c-master.m3u8https://video.igem.org/videos/embed/uWmuWmySVjfoSZnW1pt76W6760122025-10-14T09:48:54.825ZYES2025 PresentationsNOhttps://video.igem.org/w/kFVQZGgRb1fYbhqFBDPuSchttps://video.igem.org/lazy-static/thumbnails/87d16639-47de-4859-9669-6c5af462784d.jpgLZU: Synbio-MuralShield (2025) - Team Presentation [English]**Title:** Synbio-MuralShield **Description:** This video is the presentation of our project in 2025 [Wiki](https://2025.igem.wiki/lzu) | [Official Page](https://teams.igem.org/5550)https://static.igem.org/peertube/streaming-playlists/hls/9f70d316-e04d-4e99-84be-ce2dae937497/f81a7f7c-ac5d-41ca-8289-ffe13bbebe22-master.m3u8https://video.igem.org/videos/embed/kFVQZGgRb1fYbhqFBDPuSc8950172025-10-14T09:59:46.806ZYES2025 PresentationsNOhttps://video.igem.org/w/pnquBcDUHbojrQa6TxtEyuhttps://video.igem.org/lazy-static/thumbnails/e3008d5d-1b0f-472c-8e7d-cade51e567d2.jpgBUAP-Puebla: Surfactory (MX version) (2025) - Team Presentation [Spanish; Castilian]**Title:** Surfactory (MX version) **Description:** Los recién nacidos prematuros a menudo tienen dificultades para respirar debido a un desarrollo pulmonar insuficiente, y dependen del surfactante pulmonar exógeno para sobrevivir. Los tratamientos actuales son costosos, de origen animal e inaccesibles para muchas personas en todo el mundo. Nuestro proyecto aprovecha la biología sintética para diseñar microorganismos que producen proteínas surfactantes clave, creando una alternativa asequible, escalable y sin componentes animales. Este enfoque sostenible no solo aborda una necesidad médica crítica, sino que también promueve una atención médica ética y equitativa. Imaginamos un futuro donde cada bebé prematuro, independientemente de su ubicación o recursos, tenga acceso a tratamientos vitales impulsados ​​por la innovación y la responsabilidad. [Wiki](https://2025.igem.wiki/buap-puebla) | [Official Page](https://teams.igem.org/5575)https://static.igem.org/peertube/streaming-playlists/hls/bd3fe720-2997-4ea4-b6a6-ad1c1154907c/751a4957-4d81-4623-b9a3-08d3854b41a2-master.m3u8https://video.igem.org/videos/embed/pnquBcDUHbojrQa6TxtEyu831062025-10-14T10:34:36.625ZYES2025 PresentationsNOhttps://video.igem.org/w/kjWXzu2pmhaP9pxh1eYXqGhttps://video.igem.org/lazy-static/thumbnails/d77a6bce-f9b6-491d-b6c5-84b5553b615a.jpgGCGS: Microorganisms produce degradable PHA particles (2025) - Team Presentation [English]**Title:** Microorganisms produce degradable PHA particles **Description:** The plastic microbeads widely used in cosmetics have difficulty in degradation and continuously exacerbate the pollution of microplastics in the ocean, posing a serious threat to the ecosystem and human health. Polyhydroxyalkanoates (PHA), as a biodegradable material, have potential for substitution, but their poor controllability of particle morphology and high production costs limit their practical application. This project utilizes synthetic biology technology to design programmable and controllable engineered strains, developing environmentally friendly PHA-based microbeads as alternatives, aiming to provide sustainable solutions for the cosmetics industry and exploring innovative paths for biomanufacturing technology in pollution control. [Wiki](https://2025.igem.wiki/gcgs) | [Official Page](https://teams.igem.org/5746)https://static.igem.org/peertube/streaming-playlists/hls/9c82e440-ae6b-482b-86bc-6fe20f72ef64/b1f6de56-c7e0-4c7c-a281-4a5c20ec58dd-master.m3u8https://video.igem.org/videos/embed/kjWXzu2pmhaP9pxh1eYXqG8810542025-10-14T10:44:38.802ZYES2025 PresentationsNOhttps://video.igem.org/w/nNLLUpLSfbTC1nafNM6of1https://video.igem.org/lazy-static/thumbnails/0ba89e37-984c-49c5-8b0e-990604d6b4b0.jpgHangzhou-PET: OdorPure: An Odor-Control Cat Litter Additive Powered by Antisense... (2025) - Team...**Title:** OdorPure: An Odor-Control Cat Litter Additive Powered by Antisense RNA **Description:** Odor control is a critical feature in the cat litter market, as ammonia produced from urea degradation is the main source of unpleasant smell. Conventional deodorization methods, such as physical adsorption or fragrance masking, carry inherent risks and limitations. To overcome these issues, we designed antisense RNA targeting bacterial urease mRNA to block urease synthesis in ureolytic bacteria, thereby suppressing ammonia release at its origin. For the first time, we developed an asRNA-chitosan-montmorillonite complex as a safe, eco-friendly, and antibacterial additive for cat litter that tackles urine odor from the source while enhancing litter performance. [Wiki](https://2025.igem.wiki/hangzhou-pet) | [Official Page](https://teams.igem.org/6027)https://static.igem.org/peertube/streaming-playlists/hls/b097b7e6-8397-4fb3-98a9-addf63c0489c/2869bd59-3d0e-4e8f-93c3-c7650cbf4ece-master.m3u8https://video.igem.org/videos/embed/nNLLUpLSfbTC1nafNM6of17270142025-10-14T10:55:52.474ZYES2025 PresentationsNOhttps://video.igem.org/w/s1KYxCDwpFpSbSdYAC8J3xhttps://video.igem.org/lazy-static/thumbnails/3465160d-8667-4dc8-b3d4-bc9daa417739.jpgKhanLab-BayArea: Rock The Plastics: Enzyme-driven Microplastic Mineralization (2025) - Team Prese...**Title:** Rock The Plastics: Enzyme-driven Microplastic Mineralization **Description:** Microplastics are increasingly widespread. Jambeck et al. find that 5 to 12 million tons of plastic pollute the ocean annually. Plastics put into landfills degrade into microplastics that leach into the environment. These microplastics travel up the food chain, with the average person eating, drinking, or breathing between 78,000 and 211,000 microplastic particles every year. At the same time, the U.S. Geological Survey reports that 1 billion tons of limestone are quarried yearly in the United States alone. Our team addresses both of these issues by engineering E. coli to co-express plastic-binding curli fibers and a biomineralization pathway, effectively capturing microplastics in in situ limestone formations. We are using microbially induced calcite precipitation (MICP) for biomineralization, investigating a carbonic anhydrase pathway and a urease pathway. The resulting product of our engineered E. coli can immobilize microplastics while replacing non-renewable resources like sand for construction and backfilling projects. [Wiki](https://2025.igem.wiki/khanlab-bayarea) | [Official Page](https://teams.igem.org/5761)https://static.igem.org/peertube/streaming-playlists/hls/d2a8b4a6-9bcc-4029-b499-73ad39567713/8d36f656-d847-4dbb-a36f-cb0e0e9bbdb7-master.m3u8https://video.igem.org/videos/embed/s1KYxCDwpFpSbSdYAC8J3x8990392025-10-14T11:01:59.656ZYES2025 PresentationsNOhttps://video.igem.org/w/urvR5BQwwDrUEt7dbx1zaLhttps://video.igem.org/lazy-static/thumbnails/e27e271b-fdf1-419e-905c-615e243657d0.jpgHUST-UEVE-UPSaclay: ROBIN: Rhizobium Orientate and Biological Inhibition of Nema... (2025) - Team...**Title:** ROBIN: Rhizobium Orientate and Biological Inhibition of Nematode **Description:** This video focuses on an innovative solution for agricultural nitrogen fixation and nematode control. It presents the team's developed dual-function engineered bacteria: constructing plasmids to enable Bacillus subtilis to produce luteolin (enhancing legume-rhizobium symbiotic nitrogen fixation), combining Cry proteins for nematode killing, and regulating bacterial reactions via the Cre/loxP system and phages. A salicylic acid detector is also introduced, along with expert guidance and hierarchical science popularization, offering new ideas for sustainable agriculture. [Wiki](https://2025.igem.wiki/hust-ueve-upsaclay) | [Official Page](https://teams.igem.org/5730)https://static.igem.org/peertube/streaming-playlists/hls/e64fdebf-2595-4691-86b8-cf23d8426a0a/654e2083-c0f1-4666-b0f1-9ade2bd498bb-master.m3u8https://video.igem.org/videos/embed/urvR5BQwwDrUEt7dbx1zaL8420152025-10-14T12:05:40.665ZYES2025 PresentationsNOhttps://video.igem.org/w/qzY6LqdriqyBYeScsGTWmthttps://video.igem.org/lazy-static/thumbnails/5f85384c-a0bb-41cf-a71c-ce8ceabcd4d5.jpgUprize-II: BEDMAN: Bio-Engineered Design for Microbial Antipest Neutralization (2025) - Team Pres...**Title:** BEDMAN: Bio-Engineered Design for Microbial Antipest Neutralization **Description:** The project aims to deliver a safe, effective green mosquito repellent "bio-fermented citral". It constructed the IPP/DMAPP→GPP→geraniol→citral synthetic pathway in E. coli using three enzymes for modular expression on 3 vectors, and screened mutants like GeDH-54883 to boost catalytic stability. Engineered strains showed normal growth. QPCR confirmed upregulated transcription of target genes; WB verified successful protein expression. TB medium fermentation yielded 0.89-1.36 g/L citral, with yield-improving synergy identified via multi-factor optimization. Non-spray sustained-release prototypes were designed. Surveys confirmed core demands, guiding compliance strategies. A closed-loop validation from pathway construction to product definition was completed, proving bio-fermented citral’s scalability. [Wiki](https://2025.igem.wiki/uprize-ii) | [Official Page](https://teams.igem.org/5938)https://static.igem.org/peertube/streaming-playlists/hls/c71971da-7a17-4434-a81f-1902146ab7b3/cc2224d3-80a8-45d0-9dd4-0acc3a445b7f-master.m3u8https://video.igem.org/videos/embed/qzY6LqdriqyBYeScsGTWmt8720232025-10-14T11:04:11.787ZYES2025 PresentationsNOhttps://video.igem.org/w/du18MiCgUvQt8R5bJ9u6rDhttps://video.igem.org/lazy-static/thumbnails/02e03d7f-abc0-400e-85a7-824e2b99f68e.jpgEHSBNU: Tardigrade Power, Cells Empowered (2025) - Team Presentation [English]**Title:** Tardigrade Power, Cells Empowered **Description:** This video introduce our project from all aspects: the experiment, model, Business and promotion. We credit the partitioners in the ending. [Wiki](https://2025.igem.wiki/ehsbnu) | [Official Page](https://teams.igem.org/5752)https://static.igem.org/peertube/streaming-playlists/hls/65169278-e1ae-4d46-a8d5-859c84720423/1779db0d-6eec-4fc2-82d6-680131110a07-master.m3u8https://video.igem.org/videos/embed/du18MiCgUvQt8R5bJ9u6rD8820122025-10-14T11:07:47.367ZYES2025 PresentationsNOhttps://video.igem.org/w/ay1PP9V3mvm9qieSwWigVKhttps://video.igem.org/lazy-static/thumbnails/315c662f-fffc-4462-91d4-8919c4fe32e8.jpgYNNU-China: REvoDesign: boosting the laboratory enzyme evolution (2025) - Team Presentation [Engl...**Title:** REvoDesign: boosting the laboratory enzyme evolution **Description:** In this video, we share our latest work on REvoDesign, a protein-engineering platform for valuable plant metabolites. It’s designed to boost the laboratory enzyme evolution. Our goal is simple: make lifesaving and health-promoting compounds easier, faster, and greener to produce from microbes. [Wiki](https://2025.igem.wiki/ynnu-china) | [Official Page](https://teams.igem.org/5915)https://static.igem.org/peertube/streaming-playlists/hls/4d5a8e7e-0f44-4483-81e4-02c33d390a11/32b22b17-40f1-43e3-996a-709dd6b8e71e-master.m3u8https://video.igem.org/videos/embed/ay1PP9V3mvm9qieSwWigVK6490292025-10-14T11:20:09.814ZYES2025 PresentationsNOhttps://video.igem.org/w/iohGEuktYWGHQDRMunB8nAhttps://video.igem.org/lazy-static/thumbnails/ae69a488-e2dd-470a-9cec-c3e2a1fa549b.jpgHamburg: DeathCapTrap - a modular nanobody-based antidote against α-amanitin (2025) - Team Presen...**Title:** DeathCapTrap - a modular nanobody-based antidote against α-amanitin **Description:** 90% of mushroom poisonings are caused by α-amanitin, one of the deadliest mushroom toxins which can be found in the death cap mushroom. Just half a mushroom can be fatal, as the toxin inhibits RNA Polymerase II, blocking protein production and causing severe organ damage, especially to the liver and kidneys. Although treatments exist, there is no specific antidote yet. Our iGEM project, DeathCapTrap, aims to develop a modular nanobody-based antidote to neutralize α-amanitin in the bloodstream and protect liver cells. In the WetLab, we established a pipeline to produce a nuclear-targeted nanobody in E. coli. We also explored lipid nanoparticles for delivery and designed a testing protocol with liver cell models. In the DryLab, AI tools helped us design toxin-binding proteins. Our goal is to create a life-saving therapy and a versatile platform to fight intracellular toxins, while raising awareness of the dangers of mushroom poisoning. [Wiki](https://2025.igem.wiki/hamburg) | [Official Page](https://teams.igem.org/5561)https://static.igem.org/peertube/streaming-playlists/hls/8cc80338-31d8-4dbe-9371-70d5164248e8/d53bcee4-3796-4b1b-b9f2-c880d55176dd-master.m3u8https://video.igem.org/videos/embed/iohGEuktYWGHQDRMunB8nA8890152025-10-14T12:12:18.900ZYES2025 PresentationsNOhttps://video.igem.org/w/giduxyjvsP8gWUNtEQUt13https://video.igem.org/lazy-static/thumbnails/de71d068-cb57-4e60-a4f0-7c33132b1f94.jpgABOA: VeriFied: On-site bloodstain age analysis, instantly (2025) - Team Presentation [English]**Title:** VeriFied: On-site bloodstain age analysis, instantly **Description:** VeriFied aims to revolutionize forensic science by bringing it from laboratories staight to the crime scene. It provides investigators with critical information about the timeline of a crime by detecting albumin from a bloostain. [Wiki](https://2025.igem.wiki/aboa) | [Official Page](https://teams.igem.org/5794)https://static.igem.org/peertube/streaming-playlists/hls/7be06c2b-dd72-430e-808c-39475f8cdb6e/317630a6-5fb3-4b2c-a096-2c6fdf305ec9-master.m3u8https://video.igem.org/videos/embed/giduxyjvsP8gWUNtEQUt138225492025-10-14T12:17:55.652ZYES2025 PresentationsNOhttps://video.igem.org/w/r8Rk3gRAZii8nXxkUFj1sbhttps://video.igem.org/lazy-static/thumbnails/3beda9f9-b261-4f0f-a006-ca26bc405021.jpgSubCat-Shanghai: Parkinson's disease treatment - new probiotic therapy (2025) - Team Presentation...**Title:** Parkinson's disease treatment - new probiotic therapy **Description:** Current treatments for Parkinson's Disease primarily rely on levodopa (L-DOPA), a dopamine precursor, to alleviate symptoms. However, traditional L-DOPA synthesis methods, including chemical methods and plant extraction, are inefficient and environmentally unsustainable. Microbial biosynthesis has emerged as a promising alternative, although its efficiency is limited by the conversion of chorismate to L-tyrosine. This study aimed to enhance L-DOPA production by optimizing the expression of the tyrA gene in Escherichia coli and screening different RBS. Furthermore, given that gastrointestinal symptoms are a common side effect of L-DOPA, constructing a probiotic strain capable of efficiently expressing L-DOPA could not only mitigate side effects by modulating the gut microbiome, but also achieve the goal of treating and alleviating Parkinson's symptoms through continuous drug release. [Wiki](https://2025.igem.wiki/subcat-shanghai) | [Official Page](https://teams.igem.org/5740)https://static.igem.org/peertube/streaming-playlists/hls/cb8d1290-19d3-4414-8a4e-1b486a6cc7ee/d8d15999-f4ec-40c0-b092-e329e536b724-master.m3u8https://video.igem.org/videos/embed/r8Rk3gRAZii8nXxkUFj1sb9030142025-10-14T12:21:16.852ZYES2025 PresentationsNOhttps://video.igem.org/w/vo9sjuzz59rdMBJcdqKVFchttps://video.igem.org/lazy-static/thumbnails/6a3bbbd5-72bf-4134-a1b3-1bd891e8bce3.jpgSorbonne University: NEREIS : Degrading naphthalene in marine environnement (2025) - Team Present...**Title:** NEREIS : Degrading naphthalene in marine environnement **Description:** Ocean are among the most diverse ecosystems on the planet and are vital to human civilization. However, human activities put them in danger through pollution with contaminants such as polycyclic aromatic hydrocarbons (PAHs), including naphthalene. Our NEREIS project aims to offer a sustainable and ecological solution to degrade naphthalene in seawater using synthetic biology. We seek to engineer a bacteria capable of surviving in high-salinity conditions and degrading naphthalene into usable metabolite. NEREIS also has a societal dimension, as we have developed tools to promote education and public engagement in the field of synthetic biology, marine pollution and science more broadly. [Wiki](https://2025.igem.wiki/sorbonne-university) | [Official Page](https://teams.igem.org/5635)https://static.igem.org/peertube/streaming-playlists/hls/edf09809-fe05-4fc3-a20f-d2fdf42cedcd/d8ae360d-d346-4302-80a9-90531d03b25d-master.m3u8https://video.igem.org/videos/embed/vo9sjuzz59rdMBJcdqKVFc7230112025-10-14T12:28:41.486ZYES2025 PresentationsNOhttps://video.igem.org/w/sToxmiWJUjUam62BPa2f7Rhttps://video.igem.org/lazy-static/thumbnails/dd889fe4-c6fc-45ef-8b29-23264c84a1b3.jpgHongwen School: SmokeOff: Engineering Enzymes to Block TSNA Formation from Third... (2025) - Team...**Title:** SmokeOff: Engineering Enzymes to Block TSNA Formation from Third-Hand Smoke **Description:** Globally, more than 1.3 billion people use tobacco. While the dangers of first- and second-hand smoke are widely recognized, third-hand smoke—residual pollutants that settle on clothing, furniture, walls, and dust—remains an underappreciated health threat. Among its most hazardous constituents are tobacco-specific nitrosamines (TSNAs), formed through the reaction of residual nicotine with airborne nitrite. TSNAs are strongly carcinogenic and highly resistant to degradation. To address this, we propose a dual-enzyme strategy: NicA, NicB, and NicC for the degradation of surface nicotine, and NirS, NorB, and NosZ for the removal of environmental nitrite. By preventing TSNA formation at the source, this biosafe and sustainable enzyme-based spray presents a novel synthetic biology approach to indoor environmental detoxification. [Wiki](https://2025.igem.wiki/hongwen-school) | [Official Page](https://teams.igem.org/5935)https://static.igem.org/peertube/streaming-playlists/hls/d9ba6db3-676a-4415-9937-81e2ac7e37dd/0845a90c-81d4-4302-8aee-2f9d30186664-master.m3u8https://video.igem.org/videos/embed/sToxmiWJUjUam62BPa2f7R7320112025-10-14T12:34:54.899ZYES2025 PresentationsNOhttps://video.igem.org/w/deNNExj1WU3kQZgGmj7cxphttps://video.igem.org/lazy-static/thumbnails/d6028dcc-1826-4973-8570-11e55ea57ec4.jpgHangzhou-BioX: Redefining Fatigue: Synthetic Biology Captures Sports Science Sig... (2025) - Team...**Title:** Redefining Fatigue: Synthetic Biology Captures Sports Science Signals in Sweat **Description:** As more people pursue fitness to improve their health, the lack of scientific training guidance remains common. Without real-time feedback, many unknowingly overtrain, increasing the risk of injury. Lactate—a key marker of fatigue, training intensity, and anaerobic metabolism—is still mainly detected through costly instruments and invasive blood sampling, limiting its everyday use. To solve this, we developed a synthetic biology-based biosensor using engineered E. coli to express lactate oxidase, enabling detection of lactate in sweat through either a visible color change or an electrochemical signal. Our goal is to make scientific, precise training accessible to everyone. Whether for beginners or professional athletes, our sensor provides real-time insights into physical status, supporting smarter workouts and healthier progress. [Wiki](https://2025.igem.wiki/hangzhou-biox) | [Official Page](https://teams.igem.org/5750)https://static.igem.org/peertube/streaming-playlists/hls/631b2d61-3a47-47f8-acc8-0642088dfcb9/089051c1-842e-442c-bf8f-f93a99f51c50-master.m3u8https://video.igem.org/videos/embed/deNNExj1WU3kQZgGmj7cxp6880122025-10-14T12:57:58.817ZYES2025 PresentationsNOhttps://video.igem.org/w/7A4h3sf8zLxCfBzwSajHSvhttps://video.igem.org/lazy-static/thumbnails/288ea4ff-9e0e-4cd7-b2b4-3f94620fa880.jpgSCU-BSE-China: RareAmine Forge (2025) - Team Presentation [English]**Title:** RareAmine Forge **Description:** A synthetic-biology project that explores thermophilic microorganisms to build sustainable, heat-tolerant cell factories for rare bioactive polyamines. [Wiki](https://2025.igem.wiki/scu-bse-china) | [Official Page](https://teams.igem.org/5808)https://static.igem.org/peertube/streaming-playlists/hls/355823b0-6f82-4b20-9472-1dfc96d178d5/3dd2b11b-765a-417b-b3e0-0ca643f3d4e8-master.m3u8https://video.igem.org/videos/embed/7A4h3sf8zLxCfBzwSajHSv7560132025-10-14T13:27:17.004ZYES2025 PresentationsNOhttps://video.igem.org/w/8zxxTLAcfJDAXmGx2hAdvwhttps://video.igem.org/lazy-static/thumbnails/befb8bd5-21cf-45b9-869b-71b4dc8faa2f.jpgSubCat-United: Development of Antioxidant Formulations Based on the SOD-CAT Enzy... (2025) - Team...**Title:** Development of Antioxidant Formulations Based on the SOD-CAT Enzyme System **Description:** With the exacerbation of environmental pollution and UV radiation, oxidative stress has become a major contributor to skin aging. The hierarchical antioxidant system comprising superoxide dismutase (SOD) and catalase (CAT) operates synergistically: SOD converts superoxide anions into hydrogen peroxide, which CAT then decomposes into water and oxygen. This system demonstrates superior stability and efficiency compared to single antioxidants like vitamin C or E. In this study, recombinant SOD and CAT were produced in Escherichia coli, purified, and their activities validated. Through in vitro assays including superoxide anion and ABTS⁺ radical scavenging, the optimal synergistic ratio of SOD to CAT was determined. The effects of temperature and pH on enzyme stability were evaluated, offering a promising strategy for developing advanced anti-aging cosmetics. [Wiki](https://2025.igem.wiki/subcat-united) | [Official Page](https://teams.igem.org/6005)https://static.igem.org/peertube/streaming-playlists/hls/3d5ef555-10f4-4aa0-ab3d-13f6101ba410/38a3f6f8-4596-4d50-98b9-6a1eb1e6d7be-master.m3u8https://video.igem.org/videos/embed/8zxxTLAcfJDAXmGx2hAdvw8990142025-10-14T13:05:47.182ZYES2025 PresentationsNOhttps://video.igem.org/w/86NoZ7S3MuzGpeEFZHBAZghttps://video.igem.org/lazy-static/thumbnails/9f16cefd-ade9-4675-baba-ef6b9adfec61.jpgAFCM-Egypt: An Inhalable Probiotic Platform for RNA-Mediated Silencing for Asthm... (2025) - Team...**Title:** An Inhalable Probiotic Platform for RNA-Mediated Silencing for Asthma Management **Description:** PRESS is an engineered probiotic therapy that targets asthma by sensing lung inflammation and releasing therapeutic RNA only when needed. Supported by advanced modeling, educational outreach, and alignment with the UN Sustainable Development Goals, PRESS represents a safe, precise, and sustainable approach to next-generation respiratory treatment. [Wiki](https://2025.igem.wiki/afcm-egypt) | [Official Page](https://teams.igem.org/5545)https://static.igem.org/peertube/streaming-playlists/hls/397f483e-3717-4c40-9677-ccf9efe51529/266849bf-f4c0-4f77-9f2d-2c8aa7d1510d-master.m3u8https://video.igem.org/videos/embed/86NoZ7S3MuzGpeEFZHBAZg73851122025-10-14T10:04:33.783ZYES2025 PresentationsNOhttps://video.igem.org/w/nMD3wGoGrtQvPyyGscvRhThttps://video.igem.org/lazy-static/thumbnails/1e690164-b8d0-444f-83b5-4c7bb2c298b9.jpgMIT-MAHE: PhytClub - Saving Black Pepper! (2025) - Team Presentation [English]**Title:** PhytClub - Saving Black Pepper! **Description:** Pepper foot rot is a devastating condition that affects black pepper vines. Caused by Phytophthora capsici, the infection significantly affects pepper yields and soil health. Current biocontrol measures are ineffective and unsustainable. PhytClub implements a targeted and preventative solution to pepper foot rot. We have designed highly specific siRNA that silence genes responsible for pathogenicity in P. capsici. To confer stability and aid uptake in the soil, the siRNA is encapsulated inside chitosan nanoparticles. Our team has also developed a software solution that automates the siRNA design process and leverages Machine Learning to build the ideal gene silencing system. The tool will make the entire process significantly easier for researchers seeking to address similar pathogenic conditions. Join us as we introduce our work and the extensive process behind establishing its effectiveness! [Wiki](https://2025.igem.wiki/mit-mahe) | [Official Page](https://teams.igem.org/5645)https://static.igem.org/peertube/streaming-playlists/hls/b06f35df-ab0e-4a9d-ae2e-02178112f42f/f6d10e36-09ba-4221-9a98-b2d4dd80345a-master.m3u8https://video.igem.org/videos/embed/nMD3wGoGrtQvPyyGscvRhT5500412025-10-14T10:09:17.057ZYES2025 PresentationsNOhttps://video.igem.org/w/7CCCwmZfnoGcfcT6cog7jAhttps://video.igem.org/lazy-static/thumbnails/c45b8288-2d81-423e-9a60-1b6abac2c5b6.jpgSZSAIS-BaoAn: BioVitalis (2025) - Team Presentation [English]**Title:** BioVitalis **Description:** Presentation video of SZSAIS-BaoAn. [Wiki](https://2025.igem.wiki/szsais-baoan) | [Official Page](https://teams.igem.org/5954)https://static.igem.org/peertube/streaming-playlists/hls/35b42e79-aa61-4d44-9795-27edd8e54266/f8508f74-8682-4b5b-b14a-f649f87b468d-master.m3u8https://video.igem.org/videos/embed/7CCCwmZfnoGcfcT6cog7jA7330302025-10-14T13:42:55.398ZYES2025 PresentationsNOhttps://video.igem.org/w/5efdVxSuidRQ7N6cvUata5https://video.igem.org/lazy-static/thumbnails/aab61f22-06de-4d5a-b3d6-acfbb5dc7f27.jpgWageningenUR: BCoated - Tailored Protection for Tomorrow's Crops (2025) - Team Presentation [Engl...**Title:** BCoated - Tailored Protection for Tomorrow's Crops **Description:** Agriculture is changing fast, and farmers are feeling the heat. Crops must withstand abiotic stressors, like drought, and biotic stressors, such as pests. To mitigate these issues, farmers rely heavily on irrigation, fertilizers and pesticides while long-term solutions like plant breeding take years to deliver. A faster, more adaptable solution is needed. Seed coatings are thin artificial layers around seeds, which are already used for seed size and germination uniformity, and delivery of active compounds. However, their potential goes beyond current applications. Existing coatings, however, depend on fossil-based materials, often containing microplastics, and face limitations in adaptability and sustainability. To unlock their full potential, a modular, biodegradable platform is required. Bacterial cellulose (BC) is a polymer produced by Komagateibacter which we believe is this material. BC can be grown on waste materials and be tailored to user needs: Made stronger, more hydrophilic, or otherwise functionalized. By developing a customizable, sustainable platform, BCoated transforms seed coatings into farmer-friendly tools that can be rapidly adapted to meet current and future needs. This approach has the potential to supports crop resilience while reducing reliance on unsustainable inputs, paving the way for a future-proof solution for global agriculture. [Wiki](https://2025.igem.wiki/wageningenur) | [Official Page](https://teams.igem.org/5713)https://static.igem.org/peertube/streaming-playlists/hls/223dfd20-1a48-4ef9-896f-d074abf1f5e2/6beacd76-2807-4580-bb60-2291772cd996-master.m3u8https://video.igem.org/videos/embed/5efdVxSuidRQ7N6cvUata5801002025-10-14T13:34:35.217ZYES2025 PresentationsNOhttps://video.igem.org/w/r4Ed162ugFEV4r9dChWnzKhttps://video.igem.org/lazy-static/thumbnails/9201e8e2-c109-4db8-977a-cc4015de4512.jpgUSTC: Selective Proteolytic Botulinum Toxin Bioassay Based on Yeast (S.P.Y.) (2025) - Team Presen...**Title:** Selective Proteolytic Botulinum Toxin Bioassay Based on Yeast (S.P.Y.) **Description:** Botulinum toxin type A (BoNT/A), needing high-demand detection in medical aesthetics and food safety, prompts us to develop a simplified, accurate, fast, low-cost detection method to replace the traditional mouse bioassay. We use Saccharomyces cerevisiae to build a dual-yeast system: one acts as substrate to sense BoNT activity and release ligands, the other receives signals to express pigments for visualizing BoNT concentration, with coupled GPCR pathway and GAL system for signal amplification. It applies to quality inspection of medical aesthetic products and food safety, boosting efficiency and offering public accessible safety verification. This project can be applied in the quality inspection of medical aesthetic products and food safety testing. It not only improves the quality inspection efficiency of relevant institutions but also provides the general public with an accessible means to verify the safety of daily food products. [Wiki](https://2025.igem.wiki/ustc) | [Official Page](https://teams.igem.org/5924)https://static.igem.org/peertube/streaming-playlists/hls/caf73e60-a568-479b-94e5-bcf14711b589/8b6eff1d-8fa2-4a57-8aa8-4efa86fffbbd-master.m3u8https://video.igem.org/videos/embed/r4Ed162ugFEV4r9dChWnzK9010302025-10-14T13:55:51.303ZYES2025 PresentationsNOhttps://video.igem.org/w/rFBoJoqxjnjfwcTSk2Pi2mhttps://video.igem.org/lazy-static/thumbnails/2c63a478-e356-4054-b4c8-8763117167b0.jpgThessaly: Clotho: Weaving a Cure (2025) - Team Presentation [English]**Title:** Clotho: Weaving a Cure **Description:** Pancreatic Ductal Adenocarcinoma (PDAC) accounts for almost half a million deaths globally. The global incidence and mortality rates are similar, meaning almost every individual diagnosed with PDAC has a slim chance of survival. These statistics result from ineffective treatments, highlighting the urgent need for further research. That's why we invented Clotho, a modular gene therapy approach for curing PDAC. We used an adeno-associated virus to deliver a therapeutic transgene, via an injection, that activates only in cancerous cells. Once inside, the construct produces two key components: circular RNAs and an enzyme. The circular RNAs sponge up tumor-promoting miRNAs, making cancer cells more responsive to chemotherapy. The enzyme then activates a harmless prodrug 5-fluorocytosine into its toxic agent 5-fluorouracil, causing targeted destruction. We, also, developed a software platform, Kathesis, that generates custom circular RNA sequences tailored to each patient’s genetic profile. With our approach we aim to minimize off-target effects and ensure precision, while introducing an innovative way to tackle drug resistance in cancer and other diseases. [Wiki](https://2025.igem.wiki/thessaly) | [Official Page](https://teams.igem.org/5618)https://static.igem.org/peertube/streaming-playlists/hls/cffc48d9-8b7d-4731-bfe9-17b985e833fa/b06c2c5c-449b-4d1a-95a4-c1488e4f9916-master.m3u8https://video.igem.org/videos/embed/rFBoJoqxjnjfwcTSk2Pi2m8980202025-10-14T14:03:07.662ZYES2025 PresentationsNOhttps://video.igem.org/w/bqi7uEDv5s7cZ8SpgGXPGvhttps://video.igem.org/lazy-static/thumbnails/1ee9f0de-2a71-442d-a72a-a8a80c19f251.jpgWageningenUR: BCoated - Tailored Protection for Tomorrow's Crops (2025) - Team Presentation [Engl...**Title:** BCoated - Tailored Protection for Tomorrow's Crops **Description:** Agriculture is changing fast, and farmers are feeling the heat. Crops must withstand abiotic stressors, like drought, and biotic stressors, such as pests. To mitigate these issues, farmers rely heavily on irrigation, fertilizers and pesticides while long-term solutions like plant breeding take years to deliver. A faster, more adaptable solution is needed. Seed coatings are thin artificial layers around seeds, which are already used for seed size and germination uniformity, and delivery of active compounds. However, their potential goes beyond current applications. Existing coatings, however, depend on fossil-based materials, often containing microplastics, and face limitations in adaptability and sustainability. To unlock their full potential, a modular, biodegradable platform is required. Bacterial cellulose (BC) is a polymer produced by Komagateibacter which we believe is this material. BC can be grown on waste materials and be tailored to user needs: Made stronger, more hydrophilic, or otherwise functionalized. By developing a customizable, sustainable platform, BCoated transforms seed coatings into farmer-friendly tools that can be rapidly adapted to meet current and future needs. This approach has the potential to supports crop resilience while reducing reliance on unsustainable inputs, paving the way for a future-proof solution for global agriculture. [Wiki](https://2025.igem.wiki/wageningenur) | [Official Page](https://teams.igem.org/5713)https://static.igem.org/peertube/streaming-playlists/hls/545fc85f-6adb-40c4-a6e1-d1d480a28a01/9dab1434-edd9-4ae4-bba9-98e0132abf81-master.m3u8https://video.igem.org/videos/embed/bqi7uEDv5s7cZ8SpgGXPGv80401012025-10-14T15:59:06.295ZYES2025 PresentationsNOhttps://video.igem.org/w/ahTysSoRkTNvCWzuti7TfDhttps://video.igem.org/lazy-static/thumbnails/79b9e964-c22f-4a96-8809-92b6c833cf2b.jpgHKGTC: AQus-HIM - A Quorum Sensing Biosensor Kit For Hunting Invisible Microplas... (2025) - Team...**Title:** AQus-HIM - A Quorum Sensing Biosensor Kit For Hunting Invisible Microplastics **Description:** Identification of microplastics in complex environmental matrices remains a challenge. In this study, we engineered a whole-cell biosensor based on the quorum sensing regulatory circuit LasI-LasR in P. aeruginosa with a reporting module that expressed a LacZ gene. The results demonstrated that our engineered biosensor pSB1C3-LasR-pLasR3-LacZ was highly sensitive to the AHLs with EC50 values as low as 1.0 X 10-8M with N-3-oxo-decanoyl L-homoserine lactone (C10-HSL) and 3.2 X 10-8M with N-3-oxo-dodecanoyl L-homoserine lactone (3OC12-HSL) upon 2 h incubation. The values lie within the average range of AHL concentrations in water environments. Besides, the engineered biosensor is found to be functional in the real tap water environment and seawater without significant matrix effect. In addition, we engineered negative control biosensors by removing the sensing module to reduce background expression of β-galactosidase activity. Moreover, we developed protocol of quantitative X-gal assay which can be used as a testing kit in the lab for global comparison of plastic pollution status. [Wiki](https://2025.igem.wiki/hkgtc) | [Official Page](https://teams.igem.org/5815)https://static.igem.org/peertube/streaming-playlists/hls/4b3dec4d-b965-4de3-aaca-c87bd28cffdd/96076aac-4478-42f7-9595-cf967d997b0b-master.m3u8https://video.igem.org/videos/embed/ahTysSoRkTNvCWzuti7TfD7990412025-10-14T13:34:18.772ZYES2025 PresentationsNOhttps://video.igem.org/w/kLkbBbHDf7wcV4MNK6GUG5https://video.igem.org/lazy-static/thumbnails/1eeaedcc-5c95-4651-b0df-c17b328d67a0.jpgNYCU-Formosa: GenOMe (2025) - Team Presentation [English]**Title:** GenOMe **Description:** GenOMe is a next-generation, plasmid-free genome engineering platform that enables iGEM teams to integrate BioBrick components directly into specific E. coli chromosomal sites within just two days, achieving up to 80% efficiency. At its core, Bxb1 integrase mediates precise recombination between chromosomal attB and cassette attP sites, allowing seamless and site-specific DNA integration. The LandingPad module establishes reusable genomic slots that enable multi-round, marker-free insertions, while the GenOMe Parts Collection offers standardized attB/attP modules for scalable and modular construction. Combined with GenOMe Navigator, which predicts optimal integration sites and success rates, this system transforms genome editing into a fast, reliable, and standardized workflow—a true “genome LEGO baseplate” that empowers iGEM teams to build stable, creative, and inheritable genetic architectures, advancing synthetic biology into a new era of genome engineering. [Wiki](https://2025.igem.wiki/nycu-formosa) | [Official Page](https://teams.igem.org/5797)https://static.igem.org/peertube/streaming-playlists/hls/a00e2eaa-401d-4b29-882d-d7f7ba6ec6d4/ba13461a-2576-4972-8ac7-b7c9199e7ecc-master.m3u8https://video.igem.org/videos/embed/kLkbBbHDf7wcV4MNK6GUG59020582025-10-14T13:55:41.870ZYES2025 PresentationsNOhttps://video.igem.org/w/oVvAo5imvizsuyrBdtqYVchttps://video.igem.org/lazy-static/thumbnails/c0a67edf-7ff5-4749-9e4d-8d98d99531a8.jpgJapan scinet: PreserVEG ~a cre/loxP-based biosensor for climacteric fruits and v... (2025) - Team...**Title:** PreserVEG ~a cre/loxP-based biosensor for climacteric fruits and vegetables~ **Description:** Every year, 1.3 billion tons of food are wasted globally, with fruits and vegetables making up 45% of this loss. Fresh produce keeps respiring after harvest and is very sensitive to gases like ethylene. Climacteric fruits release ethylene, which accelerates their ripening and deterioration nearby produce. Since we often judge freshness only by appearance, edible food is sometimes thrown away. And if deteriorated food is left alone, safety risks like foodborne illness increase. To solve this problem, we developed PreserVEG, a Cre/loxP-based three-in-one system for climacteric fruits and vegetables. It has three key functions: Protection — nisin stops harmful bacteria; Sense — detection of ethylene gas; Visualization — GFP is expressed when deterioration begins. Using the Cre/loxP system, nisin protects produce while fresh, then ethylene triggers GFP to show spoilage. PreserVEG helps keep fruits and vegetables fresh and reduces global food waste. [Wiki](https://2025.igem.wiki/japan-scinet) | [Official Page](https://teams.igem.org/5702)https://static.igem.org/peertube/streaming-playlists/hls/b9a1b520-20c1-412c-93d1-7cbe84a5fd1d/665400f3-006d-4beb-ad07-30cc7bdd97cc-master.m3u8https://video.igem.org/videos/embed/oVvAo5imvizsuyrBdtqYVc8230532025-10-14T14:02:37.790ZYES2025 PresentationsNOhttps://video.igem.org/w/cnvGe1yWFvQkR4xYyB5B2ehttps://video.igem.org/lazy-static/thumbnails/d78e1a2a-f0f1-4e3f-84f5-727752767acf.jpgTechnion-Israel: SynTropica - Biomanufacturing of Pineapple Stem Bromelain (2025) - Team Presenta...**Title:** SynTropica - Biomanufacturing of Pineapple Stem Bromelain **Description:** Bromelain is a pineapple-derived enzyme mixture with powerful medical, industrial, and cosmetic applications, most notably its ability to selectively remove necrotic tissue in burn wounds through enzymatic debridement. However, the extraction of the enzymes from the pineapple stems is costly, inefficient, environmentally unsustainable, and limited by agricultural dependence. SynTropica aims to solve this by producing recombinant stem Bromelain, the main proteolytic enzyme in the mixture, in engineered microbial hosts - Escherichia coli, Pichia pastoris, and Bacillus subtilis. This production approach has the potential to drastically reduce costs, simplify purification, and enable scalable, consistent manufacturing. In the long term, the team envisions programmable microbial systems that not only secrete Bromelain on demand but can serve as living bio-platforms for medicine, agriculture, and research. [Wiki](https://2025.igem.wiki/technion-israel) | [Official Page](https://teams.igem.org/5830)https://static.igem.org/peertube/streaming-playlists/hls/5c157197-3241-491c-9537-671a25e8ae83/f6d13464-d69d-4acb-a1b7-bd212643ffbd-master.m3u8https://video.igem.org/videos/embed/cnvGe1yWFvQkR4xYyB5B2e8995952025-10-14T16:19:24.639ZYES2025 PresentationsNOhttps://video.igem.org/w/jdwCgBoPS48Nyacbr3nhUKhttps://video.igem.org/lazy-static/thumbnails/b74ede81-0ec3-49e1-a05a-d4c22caf9155.jpgBioplus-China: Engineered Biocatalytic Platform for Sustainable Textile Dyeing (2025) - Team Pres...**Title:** Engineered Biocatalytic Platform for Sustainable Textile Dyeing **Description:** The textile dyeing industry relies heavily on synthetic dyes, which generate toxic effluents and pose serious environmental and health risks. While bio-enzymatic dyes represent a sustainable alternative, their industrial use has been limited by unstable color output and narrow chromatic range. Inspired by the ecological tradition of Xiangyunsha silk dyeing, we developed an innovative biocatalytic platform based on a engineered fusion of tyrosinase and a self-assembling scaffold protein. This system forms reusable enzymatic “nanofactories” that convert tyrosine derivatives into non-toxic, melanin-inspired pigments, yielding a broad spectrum of colors from browns to reds. The immobilized enzyme demonstrates excellent operational stability over multiple cycles, drastically cutting water consumption and eliminating the need for heavy metal mordants. By merging synthetic biology with green chemistry, EnzColor offers a scalable, eco-friendly, and ethical pathway toward a circular textile economy. [Wiki](https://2025.igem.wiki/bioplus-china) | [Official Page](https://teams.igem.org/5733)https://static.igem.org/peertube/streaming-playlists/hls/93844b6e-2f21-4ea3-b171-0c679cfa753b/0abc2f1c-df3e-44ce-8948-e7fe5ce8c603-master.m3u8https://video.igem.org/videos/embed/jdwCgBoPS48Nyacbr3nhUK8550192025-10-14T16:30:28.178ZYES2025 PresentationsNOhttps://video.igem.org/w/8zvu5hTQrYqneoQozFQxiZhttps://video.igem.org/lazy-static/thumbnails/5ddeb61f-fbce-4699-a217-7a9f85ae1dc8.jpgHongKong-JSS: Remedix: Monitoring and Remediation of Pharmaceutical Contaminatio... (2025) - Team...**Title:** Remedix: Monitoring and Remediation of Pharmaceutical Contamination in Water Sources **Description:** Join Team Hong Kong JSS on our iGEM journey as we unveil Remedix — a groundbreaking fusion of synthetic biology, hardware, and AI designed to detect and degrade pharmaceutical pollution in the environment. In this presentation, you’ll discover how we engineered color-changing biosensors, built self-contained bioreactors, and created a portable smart lab that can spot and break down pharmaceutical waste — all while engaging communities, farmers, and health experts to ensure real-world impact. From DNA design to chemical detection, from lab benches to the Kai Tak River — Remedix shows how we can turn science into solutions for a cleaner, healthier planet. Watch now to see how innovation, teamwork, and passion bring synthetic biology to life! [Wiki](https://2025.igem.wiki/hongkong-jss) | [Official Page](https://teams.igem.org/5760)https://static.igem.org/peertube/streaming-playlists/hls/3d5daf6a-0794-4f25-ad49-99089dbbe77f/a71a231c-9567-4665-8789-fead87b3c472-master.m3u8https://video.igem.org/videos/embed/8zvu5hTQrYqneoQozFQxiZ90201292025-10-14T16:44:58.947ZYES2025 PresentationsNOhttps://video.igem.org/w/1CAVbHxBykp4RvsteyBam5https://video.igem.org/lazy-static/thumbnails/a238ba5b-ea2c-40b4-b209-cd18d46a5f8c.jpgHIA-Taiwan: PlasMission-To Combat Antimicrobial Resistance (2025) - Team Presentation [English]**Title:** PlasMission-To Combat Antimicrobial Resistance **Description:** Our iGEM team, PlasMission, presents a project tackling antimicrobial resistance through an innovative conjugation-based delivery system. The video showcases how we engineered E. coli to transfer the Beta-Lactamase Inhibitory Protein (BLIP) into resistant bacteria, restoring their sensitivity to β-lactam antibiotics. It highlights our wet lab construction and results, dry lab modeling of conjugation and enzyme inhibition, and human practices that connect our work to global health, education, and sustainability. [Wiki](https://2025.igem.wiki/hia-taiwan) | [Official Page](https://teams.igem.org/5669)https://static.igem.org/peertube/streaming-playlists/hls/051c4b48-58af-4569-91bd-e31c53c5ee28/97a4fb0f-ed86-4dd0-b66b-ab470d1bb7e7-master.m3u8https://video.igem.org/videos/embed/1CAVbHxBykp4RvsteyBam57340262025-10-14T17:01:07.192ZYES2025 PresentationsNOhttps://video.igem.org/w/bCFpJ3WsZEbjNeX84TKFJbhttps://video.igem.org/lazy-static/thumbnails/6a2c8052-19b7-4665-a6f9-9490b01307b6.jpgCFLS: Bioremediation of Unwieldy Organic Compounds Featuring Functionalized Esch... (2025) - Team...**Title:** Bioremediation of Unwieldy Organic Compounds Featuring Functionalized Escherichia coli Regulated by a Quorum Sensing System **Description:** Polycyclic aromatic hydrocarbons (PAHs) are persistent organic pollutants in the urban environment, because of their hydrophobic and lipophilic character, PAHs is an easily enriched in sludge, which is by-product of sewage treatment and widely used in cultivated land . The accumulation of PAHs can pose huge threats to the water bodies. According to Guangzhou WWTP, the concentration of several PAHs in local effluent, even after wastewater treatment, still remained approximately 10 to 15 times above China’s acceptable risk levels. Due to the numerous drawbacks of the existing approaches, such as low efficiency and significant side effects, we come up with a more comprehensive solution to this problem: constructing an engineered E.coli which is integrated with plasmids containing diverse gene clusters, endowing it with higher degradation capability, enhanced environmental resistan [Wiki](https://2025.igem.wiki/cfls) | [Official Page](https://teams.igem.org/5804)https://static.igem.org/peertube/streaming-playlists/hls/561a72f2-6379-4d30-bef3-b1952cc78812/86ead12e-05e4-49ec-829d-8df543ac2075-master.m3u8https://video.igem.org/videos/embed/bCFpJ3WsZEbjNeX84TKFJb9020152025-10-14T17:03:56.990ZYES2025 PresentationsNOhttps://video.igem.org/w/iogKVDu4Xf9DW7SG12X4KUhttps://video.igem.org/lazy-static/thumbnails/96837fad-ac22-4a02-9657-ebee8799a8c7.jpgHKSSC: Filaggrin: An alternative solution to eczema (2025) - Team Presentation [English]**Title:** Filaggrin: An alternative solution to eczema **Description:** Eczema affects 10% of adults and 20% of children, but current treatments ignore the root cause of 40% of eczema cases -FLG mutations. This video covers our journey and motivation behind bioengineering our topical treatment for eczema, and the efforts we've made in entrepreneurship, software, and integrated human practices. [Wiki](https://2025.igem.wiki/hkssc) | [Official Page](https://teams.igem.org/5613)https://static.igem.org/peertube/streaming-playlists/hls/8cc76e53-377a-4c44-bfc9-7a12b9e95a06/ffd5b3bf-c699-4b74-b9ea-7d44f4b48fcd-master.m3u8https://video.igem.org/videos/embed/iogKVDu4Xf9DW7SG12X4KU6340332025-10-14T17:14:42.630ZYES2025 PresentationsNOhttps://video.igem.org/w/6n8fBGdAYmyC5cfzxbJ1CShttps://video.igem.org/lazy-static/thumbnails/b84630ee-987c-43b5-b52a-37fc0c2ec71d.jpgMammothEdu-DTD-East: Vesper (2025) - Team Presentation [English]**Title:** Vesper **Description:** Join the MammothEdu DTD East iGEM 2025 team as they unveil their innovative bio-companion — a living yeast-based system that glows and releases natural aromas to enhance emotional well-being and sustainable rest. Discover how these young scientists combine synthetic biology, machine learning, and human-centered design to create a safe, ethical, and soothing future for all. [Wiki](https://2025.igem.wiki/mammothedu-dtd-east) | [Official Page](https://teams.igem.org/5778)https://static.igem.org/peertube/streaming-playlists/hls/2b70c81b-5ac5-44fd-836a-f07fa887382a/2e3b5e0e-cdb5-41e0-8ad3-1447324e8d93-master.m3u8https://video.igem.org/videos/embed/6n8fBGdAYmyC5cfzxbJ1CS9010402025-10-14T17:26:06.053ZYES2025 PresentationsNOhttps://video.igem.org/w/fSzdf5Zsu4GnLQdX8Lk4TEhttps://video.igem.org/lazy-static/thumbnails/28425b11-9025-4808-a0f1-613aa4b425bc.jpgNanjing-BioX: SOD Shield: Novel Eye Drops Prevent Oxidative Cataracts (2025) - Team Presentation ...**Title:** SOD Shield: Novel Eye Drops Prevent Oxidative Cataracts **Description:** Cataracts, a leading cause of global blindness, primarily result from oxidative damage to lens proteins. Current treatment relies on invasive surgery. Superoxide dismutase (SOD), a key antioxidant enzyme, neutralizes reactive oxygen species but suffers from instability and rapid degradation, limiting its therapeutic potential. Manganese superoxide dismutase (Mn-SOD) is an important subtype of the SOD family. This enzyme is closely related to the occurrence and development of cataracts. Our project employs computational biology and machine learning to engineer thermostable, high-activity Mn-SOD variants. These variants will be characterized in E. coli. Furthermore, a multi-scale mathematical model will be developed to simulate the spatiotemporal efficacy of Mn-SOD when delivered as an eye drop, from catalytic kinetics to reaction-diffusion within the eye. The goal is to develop engineered Mn-SOD as a core component of novel eye drops, offering a non-invasive strategy for cataract prevention and early intervention to alleviate the global disease burden. [Wiki](https://2025.igem.wiki/nanjing-biox) | [Official Page](https://teams.igem.org/5992)https://static.igem.org/peertube/streaming-playlists/hls/786f98c7-b7fd-4125-8bb7-6ef5c908bbf8/f3d5a954-30f6-44ed-a4aa-226efe24966c-master.m3u8https://video.igem.org/videos/embed/fSzdf5Zsu4GnLQdX8Lk4TE7360282025-10-14T17:22:59.345ZYES2025 PresentationsNOhttps://video.igem.org/w/3LAriyxFnEKBKQWZjVUX4Ahttps://video.igem.org/lazy-static/thumbnails/14dbd5ac-0246-4c9e-9b93-bc7f9c3d357e.jpgNWU-CHINA-C: Targeting DDRs: Modular Biomanufacturing of Collagen (2025) - Team Presentation [Eng...**Title:** Targeting DDRs: Modular Biomanufacturing of Collagen **Description:** Type III collagen (COLIII) serves not only as a structural support for skin elasticity but also functions as a key regulatory protein that modulates the cellular microenvironment and can deliver "dormancy" signals to cancer cells. We have overcome the limitations of traditional animal-derived collagen by utilizing synthetic biology techniques to efficiently produce humanized Type III collagen in microbial systems. This approach fundamentally eliminates risks of viral transmission and immune rejection, achieving both safety control and functional customization. [Wiki](https://2025.igem.wiki/nwu-china-c) | [Official Page](https://teams.igem.org/5644)https://static.igem.org/peertube/streaming-playlists/hls/166c39ad-0012-4e21-93b6-6071032d4a7c/e41341bf-92af-48d5-8b85-bfa33d858fdd-master.m3u8https://video.igem.org/videos/embed/3LAriyxFnEKBKQWZjVUX4A8860202025-10-14T17:32:42.832ZYES2025 PresentationsNOhttps://video.igem.org/w/sNbD22Uz6bBnaFC3oKrU68https://video.igem.org/lazy-static/thumbnails/4a17ecb1-b1e0-40be-91b9-af51cff3696d.jpgYK Pao: Nicotinamide synthase gene-enables crop iron and zinc biofortification, ... (2025) - Team...**Title:** Nicotinamide synthase gene-enables crop iron and zinc biofortification, helping to address the hidden hunger crisis **Description:** Iron (Fe) and zinc (Zn) are essential trace elements for human health. However, iron and zinc deficiency is widespread worldwide, affecting approximately 2 billion people, particularly infants, young children, and pregnant women. In recent years, genetic engineering efforts related to iron absorption and metabolism have successfully increased the iron content of edible crop parts. Nicotinamide synthase is a key enzyme in the synthesis of nicotinamide (NA) in plants. Nicotinamide is an important metal chelator that can form stable complexes with divalent metal ions such as iron (Fe) and zinc (Zn). This project intends to use software such as Pymol to predict the key amino acid sites at the C-terminus of the AtNAS1 protein that affect enzyme activity, and to mutate the key sites of the full-length protein. After purifying the AtNAS1 mutant protein through prokaryotic expression in Escherichia coli, the enzyme activity mechanics analysis will be performed. The point mutation combinations with stronger activity of the AtNAS1 full-length protein will be screened for the construction of Bacillus subtilis expression vectors. After tobacco cultivation in soil, the iron and zinc content in tobacco leaves and roots will be measured, providing new ideas and theoretical support for solving the "hidden hunger" problem of crop iron, zinc and other trace element deficiencies. [Wiki](https://2025.igem.wiki/yk-pao) | [Official Page](https://teams.igem.org/5769)https://static.igem.org/peertube/streaming-playlists/hls/d9005fe7-8bcb-45df-83b7-a2883c58cb51/a45486e7-9cd8-48ef-bf85-717431c42fec-master.m3u8https://video.igem.org/videos/embed/sNbD22Uz6bBnaFC3oKrU688760172025-10-14T17:30:29.282ZYES2025 PresentationsNOhttps://video.igem.org/w/3dfHn3dWRPDpdzNNbXMW8uhttps://video.igem.org/lazy-static/thumbnails/08e64924-4e26-434a-9ede-28eea2b4d581.jpgSUSTechOCEAN: OASIS: Optogenetic Activation System for Intelligent Surfactin exp... (2025) - Team...**Title:** OASIS: Optogenetic Activation System for Intelligent Surfactin expression **Description:** Covering over 70% of Earth’s surface, the ocean regulates climate and sustains life, with phytoplankton serving as the foundation of marine food webs. However, harmful algal blooms (HABs) have become an escalating global problem, devastating ecosystems and aquaculture. Detection is often hindered by cloud-covered satellite images, allowing blooms to develop unnoticed until severe damage occurs. This video showcases the SUSTechOCEAN team’s innovative solution that combines artificial intelligence and synthetic biology to address this challenge. Using deep learning models, we predict HAB risk in advance, then employ optogenetic control to precisely regulate the engineered bacterium Bacillus subtilis for targeted Surfactin C14 production—a potent, biodegradable, and low-toxicity biosurfactant with strong algicidal activity. When the prediction threshold is reached, blue light activates Surfactin expression to suppress harmful algae growth, while red light triggers a biosafety kill switch. This mechanism leverages the phage-derived YonE protein to deplete NAD⁺, ensuring escaped bacteria cannot survive in natural environments. Through a seamless integration of satellite monitoring, AI forecasting, light-controlled microbial responses, and robust biosafety design, our project demonstrates a proactive, intelligent defense system against HABs—advancing the vision of “Smarter Oceans, Sustainable Futures.” [Wiki](https://2025.igem.wiki/sustechocean) | [Official Page](https://teams.igem.org/5576)https://static.igem.org/peertube/streaming-playlists/hls/11e84515-9ec5-47e0-8c28-71be57479682/3aec9080-d19b-45e0-bb7b-1ea198361af9-master.m3u8https://video.igem.org/videos/embed/3dfHn3dWRPDpdzNNbXMW8u687092025-10-14T17:33:33.804ZYES2025 PresentationsNOhttps://video.igem.org/w/7We8oJZsfStTW4EkZkzDywhttps://video.igem.org/lazy-static/thumbnails/444a929f-5d39-4147-9a0e-f51a652408f0.jpgJLU-NBBMS: BiOilRo: Sustainable Biosynthesis of Ginsenoside Ro for Valorization ... (2025) - Team...**Title:** BiOilRo: Sustainable Biosynthesis of Ginsenoside Ro for Valorization of Low-Value Carbon Sources in Waste Oil **Description:** Currently, Ro suffers from low yield, high cost, and unsustainable extraction. In the wet lab, we engineered Saccharomyces cerevisiae to utilize glycerol and fatty acids as circular carbon sources for Ro biosynthesis. Through modeling, we optimized enzyme selection and activity, addressing four key enzyme-related challenges to boost production. In human practices, we adopted the “Decentralized Stakeholder Planetary Network” and “Double Diamond Model” to explore social value and engage in global dialogue. In education, guided by the principles of “teaching according to the learner and the moment” and the ROOT model, we reached diverse audiences. We also advanced BiOilRo toward commercialization and industrialization, filed patents, and developed a systematic business framework. Our vision is to integrate science, society, and sustainability, cultivating a greener and healthier future. [Wiki](https://2025.igem.wiki/jlu-nbbms) | [Official Page](https://teams.igem.org/5564)https://static.igem.org/peertube/streaming-playlists/hls/382915eb-1529-409b-b3b6-08852d997e4a/ee9b5809-4d41-44f8-8f03-285f309a7ff1-master.m3u8https://video.igem.org/videos/embed/7We8oJZsfStTW4EkZkzDyw8510352025-10-14T17:59:29.620ZYES2025 PresentationsNOhttps://video.igem.org/w/5MixscqrQfKE96DZRZEfs8https://video.igem.org/lazy-static/thumbnails/34477cdd-d9de-4406-aae6-061b3593b3d6.jpgUlink-SZ: Unburdened Intimacy: A Natural Shield of Antimicrobial Peptides Agains... (2025) - Team...**Title:** Unburdened Intimacy: A Natural Shield of Antimicrobial Peptides Against Zoonotic Bacteria **Description:** As pet companionship becomes more common, zoonotic bacterial infections are an increasing health concern. Many current antibacterial products are irritating, ineffective, or may lead to bacterial resistance, making them unsuitable for daily use. Must we choose between closeness and safety? We believe not. Using synthetic biology, we engineered E. coli to efficiently produce optimized natural antimicrobial peptides. Based on this, we developed a gentle, safe, and broad-spectrum antibacterial spray for pets. Our project aims to inhibit common zoonotic pathogens while ensuring ecological safety and user convenience—helping pet families enjoy close companionship with confidence and peace of mind. [Wiki](https://2025.igem.wiki/ulink-sz) | [Official Page](https://teams.igem.org/6017)https://static.igem.org/peertube/streaming-playlists/hls/26b7d5c8-fcae-4d14-ba9b-2d14e31ff9c3/73257897-fb00-44c6-9e08-fca567f87d56-master.m3u8https://video.igem.org/videos/embed/5MixscqrQfKE96DZRZEfs86620162025-10-14T17:45:33.290ZYES2025 PresentationsNOhttps://video.igem.org/w/nCsAbuHK5BD3GURUz1UaVEhttps://video.igem.org/lazy-static/thumbnails/9efd6cd2-8d07-4317-add3-dc3d0da9db10.jpgHainanU-China: Epilepsy Shield：BHBio＆EEGSense (2025) - Team Presentation [English]**Title:** Epilepsy Shield：BHBio＆EEGSense **Description:** Our presentation video is a collaborative effort by multiple team members. Through an exciting, engaging, and impressive delivery, we clearly explain our project, Epilepsy Shield, to the audience. The main content is as follows: Per WHO 2024 data, around 50 million people globally are suffering from epilepsy. The ketogenic diet is effective for epilepsy by prompting the body to synthesize ketone bodies, yet long-term adherence may cause side effects. To avoid these side effects, we use synthetic biology to synthesize ketone bodies for epilepsy treatment. We engineered Escherichia coli Nissle 1917 with a pathway to produce the ketone body β-hydroxybutyrate (BHB), plus dynamic regulation and safety modules. Encapsulated in hydrogel as a drug, the engineered bacteria colonize the intestines after oral administration to synthesize BHB for therapy. We also developed an intelligent epilepsy monitoring system: a concealed behind-the-ear device (cEEGrid) collects EEG signals, which are Bluetooth-transmitted to a model. After software processing, seizure risk is visualized. Our project aims to provide insights into epilepsy prevention and treatment via synthetic biology, caring for patients. [Wiki](https://2025.igem.wiki/hainanu-china) | [Official Page](https://teams.igem.org/5911)https://static.igem.org/peertube/streaming-playlists/hls/af2712e6-d2d2-429b-95e8-66ad6e4e67ac/2200fd7d-1265-40dc-a570-f4fd5732bebc-master.m3u8https://video.igem.org/videos/embed/nCsAbuHK5BD3GURUz1UaVE9030362025-10-14T17:52:35.000ZYES2025 PresentationsNOhttps://video.igem.org/w/iQNxBYqvcdrV88PLBcofKohttps://video.igem.org/lazy-static/thumbnails/ae13acd6-d3f9-4ea2-8187-583fc981fb37.jpgNanjing-China: BEATS：A Biohybrid Engineered Anti-cancer Therapeutic Serratia (2025) - Team Presen...**Title:** BEATS：A Biohybrid Engineered Anti-cancer Therapeutic Serratia **Description:** This project addresses the critical challenges of drug resistance and systemic toxicity in conventional cancer therapy by developing a novel live bacterial delivery system based on an engineered Serratia marcescens strain. We leveraged the native capacity of this bacterium to synthesize prodigiosin—a potent antitumor compound—while implementing biosafety enhancements through msbB gene knockout to reduce endotoxin production. For precise tumor targeting, we functionalized the attenuated strain with carboxymethyl cellulose encapsulation and the KP101 homing peptide. To support quantitative analysis and predictive modeling, we developed a comprehensive computational toolkit including an automated fluorescence image segmentation pipeline, a ConvLSTM-based spatiotemporal prediction model, and the integrated OncoPredict Suite platform. Guided by responsible innovation and the SEEK framework, our project combines synthetic biology with translational tool development to offer a targeted and adaptable strategy for next-generation cancer treatment. [Wiki](https://2025.igem.wiki/nanjing-china) | [Official Page](https://teams.igem.org/5650)https://static.igem.org/peertube/streaming-playlists/hls/907bbe1f-3784-4d10-a50a-b32f8b3f5f4c/75c88c13-84d1-4457-97ca-ad61c3c9cb5a-master.m3u8https://video.igem.org/videos/embed/iQNxBYqvcdrV88PLBcofKo7380392025-10-14T19:16:37.164ZYES2025 PresentationsNOhttps://video.igem.org/w/gJWf8zKFxvF9rsmt6tBaZhhttps://video.igem.org/lazy-static/thumbnails/a511ec67-82fb-436f-b9ae-d26966d78aa3.jpgRains-ECO: Plant Waxes: A Regulatory Symphony of Biosynthesis Pathways (2025) - Team Presentation...**Title:** Plant Waxes: A Regulatory Symphony of Biosynthesis Pathways **Description:** Our research is based on the idea of ​​synthetic biology to develop a high-efficiency and high-yield wax synthesis system. Using Nicotiana Benthamiana as a carrier, we increase the wax content in tobacco plants by modifying the wax synthesis and metabolic pathways in the plant. On the one hand, we improve the plant's own stress resistance and create new high-wax germplasm resource materials. On the other hand, we provide low-cost, green and sustainable industrial raw materials. [Wiki](https://2025.igem.wiki/rains-eco) | [Official Page](https://teams.igem.org/6002)https://static.igem.org/peertube/streaming-playlists/hls/7f77bf3f-c044-46cb-9683-dc63b7a84a46/36fc275c-a37e-4f04-ae90-06a96fdc33b4-master.m3u8https://video.igem.org/videos/embed/gJWf8zKFxvF9rsmt6tBaZh7860132025-10-14T17:56:41.289ZYES2025 PresentationsNOhttps://video.igem.org/w/dggRYvXePZcWSJ88536P3phttps://video.igem.org/lazy-static/thumbnails/e9176ae7-24d1-44ab-a870-cd277f7efbf8.jpgCJUH-JLU-China: ABCS: Adipocyte-based real-time breast cancer surveillance syste... (2025) - Team...**Title:** ABCS: Adipocyte-based real-time breast cancer surveillance system for postoperative patients **Description:** Breast cancer ranks among the leading cancers worldwide in both incidence and death rate. Existing detection methods require frequent hospital visits, which still cause considerable inconvenience as well as physical and mental burden. Therefore, breakthroughs are still needed in the real-time monitoring of breast cancer. Studies have shown that perimammary adipose tissue is closely related to the progression of breast cancer. Adipocytes in the tumor microenvironment can be induced by specific cytokines to transform into cancer-associated adipocytes (CAAs). Based on this, we designed and constructed engineered adipocytes for breast cancer monitoring. In these adipocytes we introduced an RNA-based AND-gate sensor capable of recognizing the transcription products of genes specifically upregulated in CAAs, and recruiting adenosine deaminases acting on RNA (ADARs) to convert adenosines (A) to inosines (I) in stop codons, thereby activating downstream pathways. The expression products will be excreted in urine to achieve visible detection of breast cancer. [Wiki](https://2025.igem.wiki/cjuh-jlu-china) | [Official Page](https://teams.igem.org/5542)https://static.igem.org/peertube/streaming-playlists/hls/634f9875-a9eb-4d30-bdd0-c1c6a63f70cf/24e09506-3aac-44e4-ad8b-880a1d1eb1bd-master.m3u8https://video.igem.org/videos/embed/dggRYvXePZcWSJ88536P3p90251832025-10-14T18:13:45.038ZYES2025 PresentationsNOhttps://video.igem.org/w/rG7dG3SuzJhGczoUKTrSaLhttps://video.igem.org/lazy-static/thumbnails/165d4292-c5c3-4c98-9171-b5974c95d082.jpgVERITAS-Prudens: Povano: Carbon-upcycling to Sustainable Pet Foods Using Pichia ... (2025) - Team...**Title:** Povano: Carbon-upcycling to Sustainable Pet Foods Using Pichia Pastoris **Description:** POVANO aims to develop a circular, low-impact protein production platform by engineering the methylotrophic yeast Pichia pastoris to convert CO₂-derived green methanol into high-yield, nutritionally balanced protein for pet food, addressing sustainability challenges from conventional meat- and fish-based feeds. We constructed a pGAPZ-based ovalbumin expression cassette (pGAP–αMF–OVA–6×His–tAOX1), integrated and validated its expression & secretion, and implemented heterologous expression of inositol biosynthesis enzymes (ScIPS/INO1 and EcIMP) to produce myo-inositol for pet health benefits. To improve product quality and scale-up acceptability, we used CRISPR/Cas9 to knock out pyruvate decarboxylase (PpPDC1) and suppress alcoholic volatiles. POVANO demonstrates a controllable, scalable microbial route that can be tailored for amino-acid balance and reduced land, water and greenhouse gas footprints, aligning with SDGs for responsible consumption and climate action. Next steps include yield and nutritional optimization, pilot-scale fermentation, safety/nutritional testing, and life-cycle analysis to quantify environmental impact. [Wiki](https://2025.igem.wiki/veritas-prudens) | [Official Page](https://teams.igem.org/6007)https://static.igem.org/peertube/streaming-playlists/hls/d00e0cbd-e4c1-4b8e-af74-021527884836/bbe6ff8f-6079-4f81-8377-c1ec9ab83877-master.m3u8https://video.igem.org/videos/embed/rG7dG3SuzJhGczoUKTrSaL8750162025-10-14T19:16:05.644ZYES2025 PresentationsNOhttps://video.igem.org/w/2xHRypahEyUdn3qAYgwjg7https://video.igem.org/lazy-static/thumbnails/4c1f55b9-fa20-427a-870a-8cec10d7c7da.jpgHiZJU-China: Oral, Ultra-long-acting GLP-1-based Therapy with Enhanced Patient C... (2025) - Team...**Title:** Oral, Ultra-long-acting GLP-1-based Therapy with Enhanced Patient Compliance via Gut Probiotics **Description:** This project develops an ultra-long-acting anti-diabetic and anti-obesity therapeutic by engineering the gut probiotic Escherichia coli Nissle 1917 to produce stabilized human-derived GLP-1. Our integrated system employs an AAF sensing circuit for spatiotemporally controlled synthesis, protein engineering with (unnatural) amino acids to enhance circulation stability, an OR-gate biosafety module for programmable biocontainment, and dedicated hardware for intestinal delivery and in vitro characterization. Together, these components enable safe, efficient, and sustained GLP-1 production, offering a novel oral living therapeutic strategy with improved patient compliance. [Wiki](https://2025.igem.wiki/hizju-china) | [Official Page](https://teams.igem.org/5828)https://static.igem.org/peertube/streaming-playlists/hls/0c86fd3f-ecd7-45cf-97fb-a35002218414/5ff70a87-5ad9-4596-9972-7815c67a7874-master.m3u8https://video.igem.org/videos/embed/2xHRypahEyUdn3qAYgwjg79035362025-10-14T18:07:31.071ZYES2025 PresentationsNOhttps://video.igem.org/w/pohsAPC7FGSkgo4W2YQEnfhttps://video.igem.org/lazy-static/thumbnails/8e251697-4419-4b27-a1d9-3ba5ba397098.jpgDUT-China: R-Home: mRNA Hepatic Optimized Modules for liver cancer (2025) - Team Presentation [En...**Title:** R-Home: mRNA Hepatic Optimized Modules for liver cancer **Description:** Hepatocellular carcinoma poses a severe global burden, with China accounting for nearly half of all cases. Current therapies face challenges in specificity, resistance, and cost. To overcome these limitations, R‑Home presents an integrated mRNA platform for precise HCC treatment. Our unified mRNA system enables dual-protein regulation, restoring tumor suppressor HNF4α while degrading oncogenic TGF‑β via p-PROTAC. We enhance specificity through GPC3-targeted LNPs and miR-21-responsive RNA switches (exCAG and eukaryotic toehold), ensuring tumor-selective expression. The platform also features optimized 5′UTRs and a spatial PK/PD model predicting drug behavior in tumors. We provide this complete system to the iGEM community, including a standardized Part Collection with optimized UTRs, eukaryotic RNA switches, and targeted delivery components, along with open-source computational models and hardware specifications - collectively advancing the development of accessible and precise cancer therapies,paving the way for accessible and precise cancer therapies. [Wiki](https://2025.igem.wiki/dut-china) | [Official Page](https://teams.igem.org/5844)https://static.igem.org/peertube/streaming-playlists/hls/bd5eb1f2-a9c8-4789-9284-f8c19b6059c8/7c9c3b2f-87b4-41fe-a45e-966c282deefe-master.m3u8https://video.igem.org/videos/embed/pohsAPC7FGSkgo4W2YQEnf8990192025-10-14T18:24:50.328ZYES2025 PresentationsNOhttps://video.igem.org/w/kgPrRCrkamEmT5pX1L2sWLhttps://video.igem.org/lazy-static/thumbnails/46d109c1-cbb2-4a70-b7bc-20566d1cd0ef.jpgHKUST-GZ: Integrative Melatonin and Bioengineered Wax-Coating System for Lychee ... (2025) - Team...**Title:** Integrative Melatonin and Bioengineered Wax-Coating System for Lychee Preservation **Description:** Lychee deteriorates rapidly after harvest due to high respiration, browning, and fungal decay. Current preservation methods rely on costly cold chains and chemical additives. Our project proposes a sustainable synthetic biology solution integrating melatonin biosynthesis and bioengineered wax coating. Engineered Bacillus subtilis produces melatonin to reduce respiration, delay browning, and enhance lychee immunity. Meanwhile, a LacI–lactose regulatory system promotes fatty acid accumulation, enabling the formation of a protective wax layer that retains moisture and prevents microbial invasion. Complemented by AI-assisted dry-lab tools—BactaGenome for bacterial genome analysis, SynbioMCP for intuitive biological design, and a drone-based spraying system for large-scale application—our approach provides an eco-friendly and intelligent lychee preservation platform that extends shelf life and reduces postharvest waste. [Wiki](https://2025.igem.wiki/hkust-gz) | [Official Page](https://teams.igem.org/5573)https://static.igem.org/peertube/streaming-playlists/hls/9c1307d5-140f-4b12-98a0-bd7605b25638/75dc9309-b837-45e1-8e52-4ce347c6a7fd-master.m3u8https://video.igem.org/videos/embed/kgPrRCrkamEmT5pX1L2sWL7870162025-10-14T18:33:48.743ZYES2025 PresentationsNOhttps://video.igem.org/w/iptG4RibfNcKrnRw8twKj6https://video.igem.org/lazy-static/thumbnails/8040830b-0c9b-4203-9800-b492df35ce17.jpgNJTECH-CHINA-A: PetPeptide Antibacterial Dressing (2025) - Team Presentation [English]**Title:** PetPeptide Antibacterial Dressing **Description:** This project uses Escherichia coli as the chassis cell to enhance the production of antimicrobial peptides and discover new types of antimicrobial peptides in order to alleviate the problem of bacterial infections in pets. [Wiki](https://2025.igem.wiki/njtech-china-a) | [Official Page](https://teams.igem.org/5809)https://static.igem.org/peertube/streaming-playlists/hls/8cf2876b-fb34-4142-953c-d7affe9362e5/e250688b-dce6-49c9-ac33-ff3d4b290f2f-master.m3u8https://video.igem.org/videos/embed/iptG4RibfNcKrnRw8twKj68920172025-10-14T19:08:57.765ZYES2025 PresentationsNOhttps://video.igem.org/w/dbATYH1uXH4GtcZuyEAQo9https://video.igem.org/lazy-static/thumbnails/6dc7d3d1-9106-4e2d-883e-8555b872c661.jpgUprize-I: PATRONUM: PAThogen-Resistant Organisms engineered for NatUral root rot... (2025) - Team...**Title:** PATRONUM: PAThogen-Resistant Organisms engineered for NatUral root rot Management **Description:** Soybean root rot, a soil-borne disease primarily caused by Fusarium spp., poses a severe threat to China’s soybean industry—with annual yield losses exceeding 50,000 tons. Conventional controls are inadequate: agricultural measures are slow-acting, chemical pesticides carry risks of residues and pathogen resistance, and biocontrol exhibits weak efficacy. To address this gap, our approach employs two engineered strains: the chitinase-expressing strain degrades existing chitin, destroying mature pathogens; the β-amyrin-synthesizing strain blocks chitin synthesis by inhibiting chitin synthase, suppressing pathogen proliferation. Our team achieved key results: establishing an in-silico workflow to screen 2000 secretory peptides; verifying the chitin-degrading ability of chitinases; constructing and optimizing β-amyrin-producing strains; developing a biosafety screening tool and a measurement tool based on safer antifungal indicator strains; confirming antifungal effects of chitinases and β-amyrin. In the future, we will promote the large-scale application of this synthetic biology-driven strategy, further supporting long-term agricultural health and food security. [Wiki](https://2025.igem.wiki/uprize-i) | [Official Page](https://teams.igem.org/5937)https://static.igem.org/peertube/streaming-playlists/hls/62a89b6d-fe59-4b67-98c5-9c8fdb6e0ff4/1b12d7e3-3102-4a8e-99eb-b640df59b73f-master.m3u8https://video.igem.org/videos/embed/dbATYH1uXH4GtcZuyEAQo989501262025-10-14T19:40:28.357ZYES2025 PresentationsNOhttps://video.igem.org/w/kZACnRDmNACY6MmSTprFDihttps://video.igem.org/lazy-static/thumbnails/57fba56e-b7d7-4fdd-821d-d41c4764232b.jpgJiangnan-China: Efficient biosynthesis of LL-37 (2025) - Team Presentation [English]**Title:** Efficient biosynthesis of LL-37 **Description:** Antimicrobial resistance (AMR) is one of the top ten global health threats, projected to cause millions of deaths in the coming decades. In response, our iGEM team has developed a yeast-based synthetic biology platform for the efficient production of LL-37—a human-derived antimicrobial peptide with broad-spectrum activity against drug-resistant bacteria. This video outlines our journey from strain selection and genetic engineering to fermentation optimization and AI-driven peptide design. Using tools like the CytoGrow and CytoEvolve modules, we enhanced LL-37 production and functionality, while partnerships with industry enabled scalable synthesis. Inspired by the principle of using technology for the benefit of humanity, our project represents a step toward next-generation biomanufacturing and a sustainable solution to the AMR crisis. [Wiki](https://2025.igem.wiki/jiangnan-china) | [Official Page](https://teams.igem.org/5607)https://static.igem.org/peertube/streaming-playlists/hls/a1e85e83-5a42-4f57-b10d-134d82420ba7/c3bda266-a5ce-4a3b-920d-958185260bd7-master.m3u8https://video.igem.org/videos/embed/kZACnRDmNACY6MmSTprFDi8760272025-10-14T19:41:20.745ZYES2025 PresentationsNOhttps://video.igem.org/w/8GMeytc1pL1AuVFUW6kEGHhttps://video.igem.org/lazy-static/thumbnails/3b25e928-3fdb-4a32-ae0d-8be9225ca800.jpgGEMS-Taiwan: Textile Fighters - An Integrated Enzymatic Route to Degrade PET in ... (2025) - Team...**Title:** Textile Fighters - An Integrated Enzymatic Route to Degrade PET in Textiles **Description:** Our project aims to address the recycling challenge of PET in textiles through enzymatic degradation. We engineered the recombinant enzyme Thermobifida fusca cutinase (TfCut2), expressed in Escherichia coli BL21. Guided by rational mutagenesis and machine learning approaches, we engineered and evaluated six TfCut2 variants with the potential for enhanced degradation performance compared to the wildtype. To improve accessibility of the textile substrate, we apply mechanical disintegration and chemical pre-treatment, followed by enzymatic treatment using cellulases for the cotton fraction and TfCut2 variants for PET. Ultimately, the process seeks to degrade blended textiles into the monomer terephthalic acid (TPA), which can then be repolymerized into PET textiles, enabling closed-loop recycling for sustainable management. [Wiki](https://2025.igem.wiki/gems-taiwan) | [Official Page](https://teams.igem.org/5729)https://static.igem.org/peertube/streaming-playlists/hls/3e619905-0d24-4f58-8b3c-622368ec1219/e67ff85a-2edb-4fb6-aa1c-b0c8517fffd5-master.m3u8https://video.igem.org/videos/embed/8GMeytc1pL1AuVFUW6kEGH81302942025-10-14T19:46:08.169ZYES2025 PresentationsNOhttps://video.igem.org/w/n7csck9X1MNPTaPFAxm8Hihttps://video.igem.org/lazy-static/thumbnails/1e71315f-3694-4de8-9ddd-e34f5fa8c6a4.jpgHunanU: AptAbt: Aptamer-based antibiotic biosensor for ensuring food safety (2025) - Team Present...**Title:** AptAbt: Aptamer-based antibiotic biosensor for ensuring food safety **Description:** This is the prensentation video of our project, offering details about experimental design, data analysis, results and human practice activities. [Wiki](https://2025.igem.wiki/hunanu) | [Official Page](https://teams.igem.org/5772)https://static.igem.org/peertube/streaming-playlists/hls/aaed6e8a-d857-4dc3-b45b-727caaf3f8e7/3433588d-94ff-4b95-b795-bfefdef484d9-master.m3u8https://video.igem.org/videos/embed/n7csck9X1MNPTaPFAxm8Hi8950222025-10-14T19:55:46.745ZYES2025 PresentationsNOhttps://video.igem.org/w/nKLmvZcERCeV5FjEKbKpc8https://video.igem.org/lazy-static/thumbnails/77ba8117-adb3-43c5-8a4e-ccfadc738d1d.jpgNAIS: CardioGuard: Dual-System Biosynthesis of Leonurine for Cardiovascular and ... (2025) - Team...**Title:** CardioGuard: Dual-System Biosynthesis of Leonurine for Cardiovascular and Cerebrovascular Protection **Description:** Cardiovascular and cerebrovascular diseases claimed over 19.8 million lives in 2022, accounting for 32% of global deaths (WHO, 2025). Leonurine, an alkaloid derived from Leonurus japonicus, exhibits preclinical protective effects by reducing oxidative stress, enhancing circulation, and inhibiting platelet aggregation. To enable sustainable production, we established a dual-platform biosynthesis strategy in Escherichia coli and Nicotiana tabacum hairy root systems. Both platforms heterologously express the final two pathway enzymes, LjUGT5 and LjSCPL, enabling conversion of the supplemented precursors sinapic acid (SA) and 4-guanidinobutanol into leonurine. We compare yield and cost efficiency across systems to identify an optimal, scalable route, providing a stable source of leonurine for cardiovascular protection. [Wiki](https://2025.igem.wiki/nais) | [Official Page](https://teams.igem.org/5961)https://static.igem.org/peertube/streaming-playlists/hls/b02c3a59-e411-4e1c-a054-6942d233ef79/b5a21f73-ce75-4fd7-963e-b762322d735d-master.m3u8https://video.igem.org/videos/embed/nKLmvZcERCeV5FjEKbKpc87890112025-10-14T20:05:34.132ZYES2025 PresentationsNOhttps://video.igem.org/w/eJnKbAu2E5hnsfEKPBnhAehttps://video.igem.org/lazy-static/thumbnails/4c365d97-2d63-41c9-9c8a-aac7b0dd7837.jpgMichigan: Magnolyse Therapeutic Platform (2025) - Team Presentation [English]**Title:** Magnolyse Therapeutic Platform **Description:** Presentation video for team Michigan 2025. Magnolyse is a bacteria-based therapeutic platform targeting ovarian cancer. [Wiki](https://2025.igem.wiki/michigan) | [Official Page](https://teams.igem.org/5786)https://static.igem.org/peertube/streaming-playlists/hls/6f317103-a3d7-45b2-8312-0784b76c0299/0f814493-86cf-469c-ab21-218c385fd300-master.m3u8https://video.igem.org/videos/embed/eJnKbAu2E5hnsfEKPBnhAe7570232025-10-14T20:09:07.597ZYES2025 PresentationsNOhttps://video.igem.org/w/n3NGdVbdr1PzjLSgLoZg3ohttps://video.igem.org/lazy-static/thumbnails/50c9b4b5-1adc-47c1-8d36-b553c4e39c32.jpgUiOslo-Norway: LactIQ: One Patch at a Time (2025) - Team Presentation [English]**Title:** LactIQ: One Patch at a Time **Description:** The Presentation Video from Team UiOslo-Norway 2025. How much should you exert yourself during exercise before you inadvertently injure yourself? "The Norwegian Training Model" describes a method used by professional athletes where the measurement of lactate levels serves as the fundamental biometric for intensity. Current practices in lactate measurement present a set of challenges, such as limited data, inconvenience, waste generation and high recurring costs. Our project aim is to develop a proof of concept for a minimally invasive lactate biosensor, responding primarily to the needs of athletes and exploring further value in the healthcare sector. During our project, we have assessed the needs, considered our options, defined the value proposition, and devised a plan for further development of our project. Throughout our journey, talking with stakeholders and the public for feedback has provided us with immense value thanks to the opportunities for collaboration and thus demonstrating the importance connecting with others. Animations: Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/evxf6u0 Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/1t9qixz Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/1siwmaw Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/vgj9f3e Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/vo7cz4i Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/tz6o1r3 Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/ma11s4s Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/uphebbm Created in BioRender. Scheie-Ahlgren, E. (2025) https://BioRender.com/uuubob4 Music: Free for use under the Pixabay Content License https://pixabay.com/music/ [Wiki](https://2025.igem.wiki/uioslo-norway) | [Official Page](https://teams.igem.org/5849)https://static.igem.org/peertube/streaming-playlists/hls/aa742cdf-b3d6-4e94-8c6b-21b933ca762e/66bfe379-7525-4058-a47c-05df520699a6-master.m3u8https://video.igem.org/videos/embed/n3NGdVbdr1PzjLSgLoZg3o6200462025-10-14T20:58:46.730ZYES2025 PresentationsNOhttps://video.igem.org/w/bvQ7VPv7n2vJxwQy5tUCGUhttps://video.igem.org/lazy-static/thumbnails/e4478acf-eb78-4a2a-ae81-1071609977a6.jpgOutaouais: OHO - Transforming a Broad Vision into a Practical Tool with and for ... (2025) - Team...**Title:** OHO - Transforming a Broad Vision into a Practical Tool with and for Farmers **Description:** Antimicrobial resistance (AMR) could cause 10 million deaths annually by 2050. In Québec, strict veterinary rules keep antibiotic use low, yet resistant bacteria still emerge through manure and wastewater. Our One Health Outaouais (OHO) project led us to start developing VIGIL|FARM, an adaptable platform for rapid on-site diagnostics that will help farmers use antibiotics precisely, safeguarding animal and public health [Wiki](https://2025.igem.wiki/outaouais) | [Official Page](https://teams.igem.org/5663)https://static.igem.org/peertube/streaming-playlists/hls/55259c4f-cc47-4cb3-97bd-8d1c5a4ecda4/05b9754e-f165-4b65-9c9f-69595fdbc379-master.m3u8https://video.igem.org/videos/embed/bvQ7VPv7n2vJxwQy5tUCGU9020532025-10-14T20:28:20.234ZYES2025 PresentationsNOhttps://video.igem.org/w/ptJyi4McZ6Y9yLKVzK3nxehttps://video.igem.org/lazy-static/thumbnails/c65d2eee-dae6-4638-9d61-155543715594.jpgTsinglan: AllerGONE: Immunotherapy specific for allergies to pollen, dust mites ... (2025) - Team...**Title:** AllerGONE: Immunotherapy specific for allergies to pollen, dust mites and seafood **Description:** Allergic reactions are becoming an increasingly serious public health issue worldwide, especially in Guangdong. The incidence of allergic diseases is continuously rising, which not only affects the quality of life of patients but also imposes a burden on the medical system. Polyvalent vaccines are an important direction for future vaccine research and development. They have significant advantages in enhancing immune efficacy, reducing the number of vaccinations, increasing vaccine coverage, and reducing costs. This project, based on genetic engineering and nanotechnology, combines allergic immunotherapy to develop polyvalent vaccines, aiming to reshape the body's immune system and improve the body's immune tolerance to allergens. [Wiki](https://2025.igem.wiki/tsinglan) | [Official Page](https://teams.igem.org/5747)https://static.igem.org/peertube/streaming-playlists/hls/be217f5d-fa9d-49a7-93f1-d9f7c44b9567/cf5262ca-7d61-4c3c-82df-a2faf4df9c0b-master.m3u8https://video.igem.org/videos/embed/ptJyi4McZ6Y9yLKVzK3nxe8575352025-10-14T20:28:38.364ZYES2025 PresentationsNOhttps://video.igem.org/w/4qtAXAQBjMfcxq3CcuXi3Chttps://video.igem.org/lazy-static/thumbnails/cb2c13b0-48d7-41b6-b37a-3539ef38534c.jpgLZU-GANSU: Oral Health Guardian: Engineered Lactobacillus for Real-Time Monitori... (2025) - Team...**Title:** Oral Health Guardian: Engineered Lactobacillus for Real-Time Monitoring of Dental Caries and Biofilm Removal **Description:** Dental caries is the most common oral disease, with an incidence rate exceeding 70% in the population. The biofilm of dental plaque, formed by Streptococcus mutans (S.m.) and other bacteria, minerals, and food debris through co-aggregation adhesion, is the main culprit in the development of caries. It is particularly concerning that due to a lack of oral health education, the public often fails to recognize the early symptoms of caries. Early caries in hidden areas are even harder to detect, exacerbating the problem. To address these issues, our team has designed a biological system capable of locating and eliminating high-risk plaque biofilms. Specifically, we've integrated the signal reception module of the quorum sensing system, Com system, from S.m. into probiotics (Lactobacilli), creating engineered bacteria. Additionally, we've developed a unique signal amplification system. When the co-aggregated engineered bacteria within the biofilm receive virulence signals from S.m., they trigger the expression of fluorescent proteins and antimicrobial peptides, thereby enabling the localization and elimination of plaque. [Wiki](https://2025.igem.wiki/lzu-gansu) | [Official Page](https://teams.igem.org/5812)https://static.igem.org/peertube/streaming-playlists/hls/1bb646f9-d855-4930-b94f-4f0f73fd7a34/77f3e502-9f79-4440-9003-9297e26bd6fd-master.m3u8https://video.igem.org/videos/embed/4qtAXAQBjMfcxq3CcuXi3C8830142025-10-14T20:27:03.682ZYES2025 PresentationsNOhttps://video.igem.org/w/r6R4psZfwMxriUVu5GN6Sohttps://video.igem.org/lazy-static/thumbnails/61ce862d-6e42-4a62-b71c-790208dae989.jpgGYHS: TCsensor: Integrated Tetracycline Detection and Biosafety Control (2025) - Team Presentatio...**Title:** TCsensor: Integrated Tetracycline Detection and Biosafety Control **Description:** Tetracycline antibiotics (TCs), among the most globally used antibiotics, persistently accumulate in environments (e.g., water, soil), threatening ecosystems and human health. Current detection methods face limitations in sensitivity, cost, and field applicability. We developed TCsensor, a detection platform for on-site TC monitoring. An engineered Escherichia coli (E. coli) biosensor uses a tetracycline-responsive tet promoter linked to a reporter gene, enabling visual, semi-quantitative detection directly in environmental samples. To ensure biosafety, TCsensor incorporates a robust triple-induction lysis system (temperature-sensitive, L-arabinose-inducible, and lactose-inducible), enabling precise engineered cell self-destruction upon application of specific external signals post-detection, thereby preventing environmental release. This integrated "detect-and-destroy" system offers a practical, field-deployable solution for environmental TC monitoring with minimized biosafety risks. [Wiki](https://2025.igem.wiki/gyhs) | [Official Page](https://teams.igem.org/6018)https://static.igem.org/peertube/streaming-playlists/hls/cb456b39-97bb-4442-8c3d-f0d844e2d6ce/037f94e0-ddc8-4306-8fb0-8134e9ac63a4-master.m3u8https://video.igem.org/videos/embed/r6R4psZfwMxriUVu5GN6So8230202025-10-14T21:15:17.683ZYES2025 PresentationsNOhttps://video.igem.org/w/mDPykA73PBWD3ii8s34iD8https://video.igem.org/lazy-static/thumbnails/62eb9794-9b3c-4d2b-b611-e305f60b4dd4.jpgTJUSX: ProbiEase: AI Platform of Probiotia Design for Diseases (2025) - Team Presentation [English]**Title:** ProbiEase: AI Platform of Probiotia Design for Diseases **Description:** Probiotics hold clear therapeutic promise, yet the evidence base is fragmented and hard to query; single-strain approaches also suffer from weak in vivo colonization and limited robustness, undermining durable efficacy. We therefore move from single strains to rationally designed consortia, empowered by synthetic biology. To enable data-driven decisions, we curated literature and clinical data and built ProbiEase, a platform that integrates a knowledge graph, strain search, and an AI chat interface to generate traceable, citable candidates. We then conduct a second-stage triage via metabolic modeling, evaluating coexistence and cross-interaction potential to derive synergistic strain sets. Using Parkinson’s disease as a case study, we showcase an end-to-end workflow—evidence aggregation → platform prioritization → modeling-based vetting—and, targeting PD-specific needs, propose intranasal nose-to-brain delivery of an engineered probiotic consortium with a modular design spanning adhesion, therapy, control, and safety. [Wiki](https://2025.igem.wiki/tjusx) | [Official Page](https://teams.igem.org/5724)https://static.igem.org/peertube/streaming-playlists/hls/a73e99df-afe2-483f-9e76-5e6838b6d9e5/4d86d158-be66-4276-8283-b7cd00b836c0-master.m3u8https://video.igem.org/videos/embed/mDPykA73PBWD3ii8s34iD88950362025-10-14T21:50:36.846ZYES2025 PresentationsNOhttps://video.igem.org/w/tGGC4rfeFzo6J6AzqZqsarhttps://video.igem.org/lazy-static/thumbnails/03e4bfe5-ac1e-4f96-945b-c9983fabff1b.jpgUChicago: "Phospho-No": Using a 14-3-3 & Synthetic Binder Complex to Selectively... (2025) - Team...**Title:** "Phospho-No": Using a 14-3-3 & Synthetic Binder Complex to Selectively Bind Phosphorylated Proteins **Description:** This is the iGEM presentation video submission for UChicago Genehackers, and outlines our project: "Phospho-No": Using a 14-3-3 & Synthetic Binder Complex to Selectively Bind Phosphorylated Proteins. It includes descriptions of our project, as well as the methods, reasoning, challenges we encountered, and advice/recommendations we received from advisors throughout the past year. [Wiki](https://2025.igem.wiki/uchicago) | [Official Page](https://teams.igem.org/5695)https://static.igem.org/peertube/streaming-playlists/hls/e0558754-d9ff-47fd-864b-fbe7c62e6b5b/1b8e8fab-91e8-4f1c-a738-09472e4e083f-master.m3u8https://video.igem.org/videos/embed/tGGC4rfeFzo6J6AzqZqsar8450232025-10-14T22:20:33.624ZYES2025 PresentationsNOhttps://video.igem.org/w/6abXsRsvKbuTSBEXqVSPRehttps://video.igem.org/lazy-static/thumbnails/29475c35-a309-4a5a-9bc6-53935c6afedf.jpgWaterloo: HydroGuard (2025) - Team Presentation [English]**Title:** HydroGuard **Description:** Catheter associated urinary tract infections (CAUTIs) are the most common hospital infection, disproportionately affecting vulnerable populations such as those in long-term care homes or the critically ill. While the standard treatments for these infections rely primarily on antibiotics, the increasing prevalence of antimicrobial resistant infections demands for an alternative solution. To combat this issue, we have developed HydroGuard, a biocompatible, infection-responsive hydrogel with controlled phage release. Our hydrogel, made up of gelatin methacryloyl, degrades in the presence of gelatinase (gelE), a protein naturally produced by E.faecalis during infection. The degradation of gelatin in the hydrogel releases the embedded phage cocktail, which targets and eradicates the biofilm. Using a combined wet-lab and computational approach, our work demonstrates the viability of this solution by incorporating the gelE gene into E.coli for lab-safe proof of concept solution. [Wiki](https://2025.igem.wiki/waterloo) | [Official Page](https://teams.igem.org/5572)https://static.igem.org/peertube/streaming-playlists/hls/29c623a6-cdfe-45a8-834b-e7b022a155a3/f2491d92-6dbc-47cf-82c1-8bdec4d7d06f-master.m3u8https://video.igem.org/videos/embed/6abXsRsvKbuTSBEXqVSPRe745092025-10-14T22:53:40.688ZYES2025 PresentationsNOhttps://video.igem.org/w/mMY6pMP7nNrYM8aXeBFhcahttps://video.igem.org/lazy-static/thumbnails/03bba16d-dc14-4c79-baf7-ac73a682e5c0.jpgNotreDame: Fleur: Engineered Probiotics for Natural GLP-1 Delivery (2025) - Team Presentation [En...**Title:** Fleur: Engineered Probiotics for Natural GLP-1 Delivery **Description:** Diabetes and obesity affect billions worldwide, yet current GLP-1 treatments rely on expensive weekly injections that cause nausea, brain fog, and other serious side effects. Notre Dame's iGEM team presents Fleur—an engineered probiotic yogurt drink that produces GLP-1 naturally in your gut. Our genetically modified Lactobacillus strains deliver bioidentical GLP-1 exactly where your body needs it, eliminating needles while minimizing systemic side effects. Through computational protein engineering and rigorous validation in animal studies, we've created a natural alternative to injectable therapies with localized delivery for enhanced safety, all at accessible probiotic pricing in a $10B+ market. Like a flower, health grows from within. [Wiki](https://2025.igem.wiki/notredame) | [Official Page](https://teams.igem.org/6036)https://static.igem.org/peertube/streaming-playlists/hls/a861cfc2-7794-466f-9fc8-a476503e2a6f/3cf36ebf-c92e-4308-8cff-6b867733d56e-master.m3u8https://video.igem.org/videos/embed/mMY6pMP7nNrYM8aXeBFhca8470112025-10-14T22:52:45.868ZYES2025 PresentationsNOhttps://video.igem.org/w/roXoJ4p6a28Wq9RV9Esytrhttps://video.igem.org/lazy-static/thumbnails/48e4564e-f0c8-47dd-8706-be9796c9d051.jpgSHSD: Engineering Heat-Tolerant Algae to Address Global Warming (2025) - Team Presentation [English]**Title:** Engineering Heat-Tolerant Algae to Address Global Warming **Description:** This presentation video provides an overview of our project, which focuses on overexpressing the endogenous gene CPN60C in Chlamydomonas reinhardtii to enhance its survival under heat stress. By doing so, the organism can maintain photosynthetic efficiency, and in the long term, serve as an effective option for carbon dioxide absorption to help mitigate greenhouse effects and global warming. In the video, we introduce the background of the problem, present our proposed solution, outline the methodology, share experimental results, and discuss human practices, safety considerations, as well as our vision for future research. [Wiki](https://2025.igem.wiki/shsd) | [Official Page](https://teams.igem.org/5732)https://static.igem.org/peertube/streaming-playlists/hls/cda8f742-6cc8-4ace-a943-dadbc8d195e7/df42ce5a-b0f9-4632-800f-2a31c2d585db-master.m3u8https://video.igem.org/videos/embed/roXoJ4p6a28Wq9RV9Esytr8450122025-10-14T22:54:24.743ZYES2025 PresentationsNOhttps://video.igem.org/w/737H8kAuUwcHAR76SdJugihttps://video.igem.org/lazy-static/thumbnails/4ef2442f-678b-4af4-806e-ee70c85575df.jpgJGU-Mainz: Pyricon - Spin a Future with Spider Silk (2025) - Team Presentation [English]**Title:** Pyricon - Spin a Future with Spider Silk **Description:** The cement industry accounts for nearly 8% of anthropogenic CO₂ emissions and yet remains one of the hardest sectors to decarbonise. In our iGEM project Pyricon, we tackle this challenge by combining synthetic biology and material science to create a bio-based alternative to traditional cement. We engineered a dual bacterial system: The Stone Mason - natural microbes that induce Microbially Induced Calcite Precipitation (MICP), forming calcite minerals, and the weaver, Bacillus subtilis engineered to produce synthetic spider silk, which self-assembles into a reinforcing scaffold. This synthetic microbial partnership forms a living composite material, constituting a sustainable biocement that enhances biomineralization by improving crack resistance and reducing carbon emissions. Through our innovations, from Pyricloning, our modular assembly strategy for repetitive genes, to the development of synthetic pyriform silk and a harmonised expression toolkit - Pyricon demonstrates how synthetic biology can literally build the future. [Wiki](https://2025.igem.wiki/jgu-mainz) | [Official Page](https://teams.igem.org/5673)https://static.igem.org/peertube/streaming-playlists/hls/30e27440-f32e-4a64-a855-ac2a2fcc3337/111ecd63-64af-44d9-9df8-3dc43242491d-master.m3u8https://video.igem.org/videos/embed/737H8kAuUwcHAR76SdJugi9030522025-10-15T00:15:59.632ZYES2025 PresentationsNOhttps://video.igem.org/w/bkF5XXuysEf53YDE3fe9cKhttps://video.igem.org/lazy-static/thumbnails/c084d5b9-c27e-4c12-92f3-d4c65ce0e025.jpgLZU-MEDICINE-CHINA: Gut Health Guardian (2025) - Team Presentation [English]**Title:** Gut Health Guardian **Description:** Our project aims to develop an intelligent engineered bacterium for the precise treatment of perioperative gut microbiota dysbiosis. Using the safe Lactobacillus casei as the chassis, we have integrated a multifunctional genetic circuit. First, by introducing the accA and OLE1 genes, the engineered bacterium can synthesize and release oleic acid—beneficial for gut barrier repair—under the specific regulation of the bile salt-responsive promoter P16090. Simultaneously, the bacterium expresses the antimicrobial peptide defensin DEFB4A to precisely suppress opportunistic pathogens. To ensure biosafety, we designed a bile salt-responsive Hok/Sok toxin-antitoxin "kill switch" system, controlled by the same P16090 promoter. This mechanism ensures that the engineered bacterium only colonizes the gut; any leakage into the external environment triggers its automatic clearance. Together, this living therapeutic platform is equipped with functions for barrier repair, pathogen suppression, and self-regulation, setting a new standard for targeted, safe, and intelligent interventions. [Wiki](https://2025.igem.wiki/lzu-medicine-china) | [Official Page](https://teams.igem.org/5562)https://static.igem.org/peertube/streaming-playlists/hls/53ba9b07-b653-4d09-8196-a673db95dff1/fa2f6ddd-66e6-4360-a166-10cf0a716df3-master.m3u8https://video.igem.org/videos/embed/bkF5XXuysEf53YDE3fe9cK9020152025-10-15T00:17:50.370ZYES2025 PresentationsNOhttps://video.igem.org/w/1v63YxLoaMBZ3GugtnuAU5https://video.igem.org/lazy-static/thumbnails/2a2f37cf-17ce-4d37-abad-171511fe917e.jpgNJU-China: Rebuilding Babel: Decode Chaos, Unleash Biosynthetic Treasures (2025) - Team Presentat...**Title:** Rebuilding Babel: Decode Chaos, Unleash Biosynthetic Treasures **Description:** In the ancient tale of Babel, a unified language shattered into chaos, mirroring DNA's evolutionary fragmentation across trillions of species. This "genetic Babel" hinders discovering Biosynthetic Gene Clusters (BGCs), vast reservoirs of untapped potential hidden in microbes. NJU-China 2025 defies this curse by rebuilding Babel through two towers: the Genetic Tower (BioSHINAR) and the Cognition Tower (Education Space). BioSHINAR leverages AI for a deeper understanding of DNA across three modules—NIMROD for BGC detection, ORACLE for functional prediction, and PENTECOSTA for cluster integration. Validated via DBTL cycles, it excels in mining terpenoid BGCs that elude traditional benchmarks, enabling the discovery of previously unrecognized secondary metabolites. We've completed a robust business plan, with positive company feedback highlighting commercial promise. Complementing this, Education Space enables designing education programs and exchanges to popularize synthetic biology. Through these innovations, we have successfully rebuilt the Tower of Babel of life, unleashing biosynthetic treasures [Wiki](https://2025.igem.wiki/nju-china) | [Official Page](https://teams.igem.org/5832)https://static.igem.org/peertube/streaming-playlists/hls/040faeab-2eec-4433-8722-48caf2c7ece4/fd84d7da-0358-4b12-8e62-d7115127ba06-master.m3u8https://video.igem.org/videos/embed/1v63YxLoaMBZ3GugtnuAU59000532025-10-15T00:31:16.190ZYES2025 PresentationsNOhttps://video.igem.org/w/oPDCf8us6S376ffsBg96Dhhttps://video.igem.org/lazy-static/thumbnails/0bd8b620-a483-4c6c-a271-ebf966b0d620.jpgCAU-China: PhAgri (2025) - Team Presentation [English]**Title:** PhAgri **Description:** Bacterial crop diseases cause annual devastating agricultural damage. CAU-China 2025 builds PhAgri, a SMART phage-like particle (PLP) platform：it can precisely target and kill pathogenic bacteria without accidentally harming other. Meanwhile, since PhAgri has no self-replication ability, its safety is effectively guaranteed. Using E. coli MG1655, we developed a delivery system, tail fiber replacement platform, and Alphage software for flexible antibacterial spectrum reprogramming. We hope that when PhAgri moves beyond the laboratory, it can be cultivated and used independently by farmers. By providing them with eco-friendly and highly effective pesticides, PhAgri will align with multiple Sustainable Development Goals. In the future, we anticipate that PhAgri will not only safeguard food security, but also enable the synthesis of artificially designed bacteriophages through predictive modification of tail fiber proteins—ultimately solving all potential bacterial problems. [Wiki](https://2025.igem.wiki/cau-china) | [Official Page](https://teams.igem.org/5846)https://static.igem.org/peertube/streaming-playlists/hls/b8d031e3-2057-4c0b-aefa-ea64aaa3e1b6/c760bd04-b124-499d-8006-fb123582aa34-master.m3u8https://video.igem.org/videos/embed/oPDCf8us6S376ffsBg96Dh90301282025-10-15T00:50:43.303ZYES2025 PresentationsNOhttps://video.igem.org/w/risXthjKftHM3CHJvRTFH9https://video.igem.org/lazy-static/thumbnails/6c0d4c21-a538-46a4-8ec3-a24889c5f76b.jpgConcordia-Shanghai: PURPLE - Plastic Up-cycling to Reduce Pollution & Loop the E... (2025) - Team...**Title:** PURPLE - Plastic Up-cycling to Reduce Pollution & Loop the Economy **Description:** In response to the global challenge of plastic waste, our iGEM project aims to develop innovative biological pathways for the upcycling of polyethylene terephthalate (PET) plastic into high-value products, such as BHB (Beta Hydroxybutyrate). Our approach designs synthetic pathways in E. coli and P. putida, enabling them to convert PET waste into Polyhydroxybutyrate (PHB) and later BHB. Utilizing computational tools and Flux Balance Analysis (FBA), we will optimize the engineered pathways to enhance the flux towards PHB production. This will include the use of kinetic models to predict and refine enzyme activity based on varying substrate concentrations. By designing and constructing novel biological parts, we aim to establish an innovative production pathway that aligns with circular economy principles. This will not only facilitate the conversion of PET plastic waste into valuable products but also provide a sustainable solution to a pressing environmental issue. [Wiki](https://2025.igem.wiki/concordia-shanghai) | [Official Page](https://teams.igem.org/5594)https://static.igem.org/peertube/streaming-playlists/hls/cce4b919-fa95-440e-a696-3362facfabf6/fe7f1e36-92e1-474c-bfd8-b31015bfe8d3-master.m3u8https://video.igem.org/videos/embed/risXthjKftHM3CHJvRTFH98990172025-10-15T01:00:58.197ZYES2025 PresentationsNOhttps://video.igem.org/w/8DwmUFW47HCdNuQv3Qe8cThttps://video.igem.org/lazy-static/thumbnails/5e4458ef-da13-4042-9613-78f3dc2c3c44.jpgStanford: LiRA. Turning Tomorrow's Cancer into Today's Signal (2025) - Team Presentation [English]**Title:** LiRA. Turning Tomorrow's Cancer into Today's Signal **Description:** This video introduces "LiRA," a dual-input RNA logic system for precise detection and treatment of HBV-driven liver cancer. We explain the specificity problem with single biomarkers and how LiRA uses ADAR-based sensors to AND-gate a viral RNA (HBx) with a tumor RNA (e.g., GPC3), activating only in diseased cells and moving forward from split-GFP validation to a future split-IL-2 therapeutic. We also highlight our dry-lab sensor design pipeline along with our human practices initiatives in education, entrepreneurship, and safety. [Wiki](https://2025.igem.wiki/stanford) | [Official Page](https://teams.igem.org/5802)https://static.igem.org/peertube/streaming-playlists/hls/3ded334f-29e9-4b2e-a9b4-eac0eb0d2635/d721f229-4b02-47d7-8431-e9af550efdee-master.m3u8https://video.igem.org/videos/embed/8DwmUFW47HCdNuQv3Qe8cT9010502025-10-15T01:11:02.103ZYES2025 PresentationsNOhttps://video.igem.org/w/eQJJp5Y137wzbHnitqjqNohttps://video.igem.org/lazy-static/thumbnails/522343ab-6e1c-48c5-b869-e08550cb90bc.jpgAlma: Com-bat-ing White-nose Syndrome (2025) - Team Presentation [English]**Title:** Com-bat-ing White-nose Syndrome **Description:** Alma's iGEM team's project video about our journey to developing an effective treatment against a devastating fungal disease. [Wiki](https://2025.igem.wiki/alma) | [Official Page](https://teams.igem.org/5648)https://static.igem.org/peertube/streaming-playlists/hls/7014d663-6c01-4b09-86da-ad35a09745d2/556bb91b-4e5c-4e49-b26b-776be3a8d4bf-master.m3u8https://video.igem.org/videos/embed/eQJJp5Y137wzbHnitqjqNo6030152025-10-15T01:15:06.562ZYES2025 PresentationsNOhttps://video.igem.org/w/wR7ZYbhC4Q8ADWM2F9sihohttps://video.igem.org/lazy-static/thumbnails/c664b917-0e07-4b95-b1a6-bcdbb88def9c.jpgRUBochum: Glow to Grow - desferrioxamine synthesis reimagined (2025) - Team Presentation [English]**Title:** Glow to Grow - desferrioxamine synthesis reimagined **Description:** Our project focuses on the biosynthesis of desferrioxamine, a siderophore with significant medical and industrial applications. We investigated how its production could be optimizeed by transferring the biosynthetic gene cluster from its native producer, Streptomyces pilosus, to Rhodococcus, a genus known for its industrial viability. To monitor the successful expression of the biosynthetic gene cluster, we designed a split-GFP system that provides a visual confirmation of gene expression through fluorescence. [Wiki](https://2025.igem.wiki/rubochum) | [Official Page](https://teams.igem.org/5583)https://static.igem.org/peertube/streaming-playlists/hls/f9cdeb08-89ee-4dfe-810d-66459fb155ca/24bceb29-3c66-45aa-bb26-ef25be2e71be-master.m3u8https://video.igem.org/videos/embed/wR7ZYbhC4Q8ADWM2F9siho7120152025-10-15T01:45:49.485ZYES2025 PresentationsNOhttps://video.igem.org/w/hBoSYHCeLABZguosa9jeNPhttps://video.igem.org/lazy-static/thumbnails/73ccf4e8-d13d-4e94-9398-5ad32e2b8a36.jpgConcordia-Montreal: ToastBusters (2025) - Team Presentation [English]**Title:** ToastBusters **Description:** The Concordia iGEM team showcases our probiotic-based approach to reducing gluten cross-contamination for people with celiac disease. Our team designed a genetically engineered probiotic capable of detecting and breaking down gluten peptides in the gut before they trigger immune reactions, while also producing peptide caps to block detection by immune cells. In this video, we walk through the motivation behind the project, the science behind it, and the impact we hope to make in improving everyday life for those with celiac disease and gluten intolerance. [Wiki](https://2025.igem.wiki/concordia-montreal) | [Official Page](https://teams.igem.org/5785)https://static.igem.org/peertube/streaming-playlists/hls/868359a3-7cf5-4c27-88b0-0878bc15bedf/be86660d-8194-4118-84dd-343e4ecffc09-master.m3u8https://video.igem.org/videos/embed/hBoSYHCeLABZguosa9jeNP8770262025-10-15T01:51:26.441ZYES2025 PresentationsNOhttps://video.igem.org/w/nFDnDWSAqg7bQShJHdrXqhhttps://video.igem.org/lazy-static/thumbnails/bac64084-3166-492a-b174-b54aec754e85.jpgMarburg: NRPieceS: Unlocking Nature's Antibiotic Toolbox (2025) - Team Presentation [English]**Title:** NRPieceS: Unlocking Nature's Antibiotic Toolbox **Description:** Concerned about the escalating threat of antimicrobial resistance (AMR), we investigated strategies to expand the antimicrobial pipeline. Conventional antibiotic discovery has slowed markedly, while resistant pathogens continue to spread globally, creating an urgent public‑health risk. We therefore pursued innovative approaches to accelerate the identification of novel antimicrobial compounds and alternatives to classical antibiotics. We developed NRPieceS, a versatile synthetic biology platform that enables the generation of large peptide libraries with minimal cloning effort. Our approach outperforms existing methods in terms of efficiency and sustainability, allowing faster and easier production of potential bioactive peptides with antimicrobial properties. At the core of our system lies a combinatorial biosynthesis library for nonribosomal peptides (NRPs), enabling biocatalytic peptide production through engineered nonribosomal peptide synthetases (NRPSs). Our approach integrates state-of-the-art methods in NRPS engineering, combining multiple established techniques to create a powerful and flexible platform for peptide design. Our NRPieceS platform includes every step of an integrated Design-Build-Test-Learn engineering workflow, from heterologous expression, derivatization to activity testing and computational guidance via our software tool, mATChmaker. The NRPieceS plasmid collection comprises 160 plasmids, including our NRPieceS toolbox of 35 donor plasmids, providing an extensive resource for modular NRPS assembly and engineering. mATChmaker, our software, provides insights to NRPS protein structures by generating and visualizing condensation complexes of native and engineered NRPS assembly lines. In addition, it provides guidance for choosing compatible NRPS Modules for the generation of hybrid NRPS assembly lines assessing phylogenetic relationships. Together, these features e...https://static.igem.org/peertube/streaming-playlists/hls/af98f376-fe41-4434-a504-1fff243a0204/1ee20e68-e017-431a-9991-17db77626d9a-master.m3u8https://video.igem.org/videos/embed/nFDnDWSAqg7bQShJHdrXqh85201842025-10-15T02:12:05.557ZYES2025 PresentationsNOhttps://video.igem.org/w/58oQCkhDPsxZc2ko1pGcJ7https://video.igem.org/lazy-static/thumbnails/221a2f05-8438-49c7-af53-5574155ed9c9.jpgSR-China: Probabyotics Infant Formula: Probiotic HMOs, Digestible Casein & Lacto... (2025) - Team...**Title:** Probabyotics Infant Formula: Probiotic HMOs, Digestible Casein & Lactose-Free **Description:** To address critical limitations in current infant formula—specifically the absence of immunomodulatory human milk oligosaccharides (HMOs), poor digestibility of casein micelles, and prevalent lactose intolerance—our team, Probabyotics, developed "2-FLuxe" using Escherichia coli Nissle 1917（EcN） as a probiotic chassis for integrated bioengineering. We constructed three synergistic systems: (1) a de novo 2’-fucosyllactose (2’-FL) synthesis pathway (via manB-manC-gmd-fcl-futC overexpression) to produce breastmilk-mimetic HMOs at >80% reduced cost; (2) recombinant trypsinogen expression for precise casein hydrolysis, alleviating gastrointestinal burden; and (3) high-yield β-galactosidase (lacZ) fermentation to eliminate lactose. Manufacturing involves EcN-based fermentation with low-cost substrates (glycerol/lactose), enzymatic purification, and incorporation of 2’-FL with trypsin/β-galactosidase-treated milk. The resulting formulation eliminates key drawbacks of conventional formulas by providing 2’-FL-driven pathogen inhibition and microbiota support, enhanced protein digestibility, and lactose-free tolerance—enabling accessible, breastmilk-equivalent nutrition for infants with digestive vulnerabilities or limited breastfeeding access. [Wiki](https://2025.igem.wiki/sr-china) | [Official Page](https://teams.igem.org/5986)https://static.igem.org/peertube/streaming-playlists/hls/216cd5ef-80e0-4558-9afe-6c466166a8c6/31b636d5-95e5-4257-9bd5-f0cc962b2a80-master.m3u8https://video.igem.org/videos/embed/58oQCkhDPsxZc2ko1pGcJ77690312025-10-15T02:18:29.404ZYES2025 PresentationsNOhttps://video.igem.org/w/7VZkA1XtTRrpCXzWHsRgMRhttps://video.igem.org/lazy-static/thumbnails/ad001ca0-1925-48a9-8c03-d0a44c3e726b.jpgUSP-Brazil: Glycosy-N-ation: Developement of microbial plataforms for the produc... (2025) - Team...**Title:** Glycosy-N-ation: Developement of microbial plataforms for the production of recombinant glycoproteins **Description:** N-glycosylation, the attachment of glycans to asparagine residues, is a critical post-translational modification that influences protein folding, stability, signaling, and activity. Over half of human proteins are glycosylated, yet current therapeutic glycoprotein production depends on eukaryotic hosts, as common models such as Saccharomyces cerevisiae and Escherichia coli are unsuitable. E. coli lacks an N-glycosylation pathway, leading to insoluble proteins, while S. cerevisiae produces hypermannose glycans that are immunogenic in humans. To overcome these limitations, we are engineering optimized microbial platforms for glycoprotein synthesis. In yeast, glycan chain extension is disrupted to generate simpler structures, and in E. coli, a de novo glycosylation system is reconstructed using modular Golden Gate-compatible parts. Both systems aim to produce the universal precursor Man₃GlcNAc₂. We developed 24 yeast mutants to evaluate growth, fitness, morphology, protein production, and glycan transfer, and incorporated archaeal oligosaccharyltransferases into E.coli to explore their ability to transfer glycans to human-like sequons. [Wiki](https://2025.igem.wiki/usp-brazil) | [Official Page](https://teams.igem.org/5548)https://static.igem.org/peertube/streaming-playlists/hls/3820965e-a8e3-4d00-b93a-0f4c23c17a67/c9415199-09b9-47c2-844f-764b7f83fec6-master.m3u8https://video.igem.org/videos/embed/7VZkA1XtTRrpCXzWHsRgMR82501572025-10-15T02:20:16.460ZYES2025 PresentationsNOhttps://video.igem.org/w/qsbKPtvUDzfv32biUg5VaUhttps://video.igem.org/lazy-static/thumbnails/6ca155d8-d1d3-46b6-ab84-28d2b9d985bc.jpgBarcelona-UB: SKIPPIT: A next generation tool to control genetic expression duri... (2025) - Team...**Title:** SKIPPIT: A next generation tool to control genetic expression during translation **Description:** SKIPPIT harnesses the power of structural RNA elements (SREs) by fusing them with ligand-responsive RNA elements (aptamers) to create novel riboswitches that precisely control protein production. As a proof of concept, we are developing a system capable of regulating protein elongation with high specificity. Beyond this, we have built a software tool that automates the modelling, scoring, and visualisation of these systems for any SRE–aptamer combination, transforming a niche experimental challenge into a standard, accessible resource in the synthetic biology toolbox. [Wiki](https://2025.igem.wiki/barcelona-ub) | [Official Page](https://teams.igem.org/5622)https://static.igem.org/peertube/streaming-playlists/hls/c6034b4e-8863-4ecf-878c-d5bb5b53e802/a39e417d-ed03-463f-bc99-4124270d2516-master.m3u8https://video.igem.org/videos/embed/qsbKPtvUDzfv32biUg5VaU88802452025-10-15T02:37:16.493ZYES2025 PresentationsNOhttps://video.igem.org/w/fnJUiuaiyVJgY4gTu3qeZihttps://video.igem.org/lazy-static/thumbnails/9cd94434-83e1-4139-9ece-d95976113e0e.jpgAshesiGhana: The Living Pentacone (2025) - Team Presentation [English]**Title:** The Living Pentacone **Description:** Coastal defense structures are important in protecting coastal communities from harsh sea conditions, including huge waves and erosion. However, these structures develop microcracks that progressively expand into larger cavities, compromising structural integrity and endangering coastal populations. Our team addresses this challenge through a multi-faceted approach centered on engineered Vibrio natriegens bacteria that employ biocementation to repair microcracks before they develop into structural failures. We have also designed an optimized coastal structure with enhanced hydrodynamic properties to mitigate erosion more effectively. Our pentacone structure features biosensing capabilities that detect changes in ocean pH and the presence of heavy metals, including mercury, cadmium, and arsenic, providing early warning of environmental deterioration. Coastal degradation often occurs in conjunction with plastic pollution and inadequate ecological monitoring. Our solution integrates educational initiatives to address marine plastic waste. This project integrates synthetic biology and community engagement to design systems that work in harmony with natural processes. [Wiki](https://2025.igem.wiki/ashesighana) | [Official Page](https://teams.igem.org/5831)https://static.igem.org/peertube/streaming-playlists/hls/7468ffe2-aaba-47ae-b01f-936e43b1ce6f/a65f477e-9ff0-46c7-8554-c8a4041e3360-master.m3u8https://video.igem.org/videos/embed/fnJUiuaiyVJgY4gTu3qeZi7460272025-10-15T02:36:53.380ZYES2025 PresentationsNOhttps://video.igem.org/w/8eTaLQ9FbF84ALfhuG8Ww2https://video.igem.org/lazy-static/thumbnails/669b8d38-c769-496c-95d9-8a426e054f81.jpgZQT-China: Eco-synthetic Bioremediation for Sustainable Crop Rotation (2025) - Team Presentation ...**Title:** Eco-synthetic Bioremediation for Sustainable Crop Rotation **Description:** Herbicide residues threaten soil health and crop productivity in northern China. In soybean–wheat rotations, the herbicide chlorimuron-ethyl persists for months, hindering wheat germination and disturbing ecosystems. ZQT-China engineered E. coli to express carboxylesterase PnbA anchored by Ice Nucleation Protein (INP), enabling degradation of chlorimuron-ethyl into harmless compounds. To restore fertility, the strain synthesizes indole-3-acetic acid (IAA) to stimulate root growth, while a cold-inducible CspA suicide system ensures biosafety through temperature-triggered self-lysis. The final product—a freeze-dried bacterial powder—is rehydrated and sprayed 7–10 days between soybean harvest and wheat sowing, providing dual benefits of herbicide degradation and crop promotion. Roadmap: Short-term: verify performance and optimize application; Mid-term: scale up production and conduct field trials; Long-term: establish a “straw circular agriculture” model and develop natural bio-herbicides for green, low-carbon, and sustainable farming. ZQT-China transforms synthetic biology into a practical path toward cleaner soil and sustainable harvests. [Wiki](https://2025.igem.wiki/zqt-china) | [Official Page](https://teams.igem.org/5887)https://static.igem.org/peertube/streaming-playlists/hls/3aa02c5f-dd02-4273-a042-546d6f24967d/c863602c-f5e5-40e0-9260-7237aecf478b-master.m3u8https://video.igem.org/videos/embed/8eTaLQ9FbF84ALfhuG8Ww27120232025-10-15T02:38:15.832ZYES2025 PresentationsNOhttps://video.igem.org/w/sjFsDKBshgPm8AU6GUvoE2https://video.igem.org/lazy-static/thumbnails/bd28d438-da08-41d8-ab8a-aaa2f3a4df95.jpgOhio State: Team OSU AptaSense (2025) - Team Presentation [English]**Title:** Team OSU AptaSense **Description:** Developing an electrochemical Biosensor [Wiki](https://2025.igem.wiki/ohio-state) | [Official Page](https://teams.igem.org/6000)https://static.igem.org/peertube/streaming-playlists/hls/d5294f90-8e69-451e-a94c-fec5c50d39bd/c2d37841-d930-4e52-9749-b11fd3b7bab1-master.m3u8https://video.igem.org/videos/embed/sjFsDKBshgPm8AU6GUvoE2893092025-10-15T02:37:27.601ZYES2025 PresentationsNOhttps://video.igem.org/w/pexw5rkoch3MXcBnowYYqbhttps://video.igem.org/lazy-static/thumbnails/3c48085d-4a93-4648-963e-9236ea934051.jpgOTIA-Hangzhou: SynSweet Tech (2025) - Team Presentation [English]**Title:** SynSweet Tech **Description:** In the face of the increasingly serious problems of obesity and metabolic diseases in China, as well as the limitations of traditional artificial/natural sweeteners in terms of safety, tolerance, and functionality, this video elaborately introduces that this project adopts synthetic biology technology to establish a green biomanufactive process for the large-scale production of new functional sweeteners - agarose oligosaccharides (AOS) and fructooligosaccharides (FOS) They have a low glycemic index (GI) and significant prebiotic properties. This technical approach aims to fundamentally address the health controversies and application challenges associated with existing sweetener products, providing the food industry with safer, more efficient and cost-effective health sweetener solutions [Wiki](https://2025.igem.wiki/otia-hangzhou) | [Official Page](https://teams.igem.org/5725)https://static.igem.org/peertube/streaming-playlists/hls/bc26483d-c76b-4090-8333-13411f57197a/bc00c2af-73be-42ae-8987-1c4e4de1db0c-master.m3u8https://video.igem.org/videos/embed/pexw5rkoch3MXcBnowYYqb888082025-10-15T02:58:40.381ZYES2025 PresentationsNOhttps://video.igem.org/w/4AbQTx2JqnHrfGPjFywoGEhttps://video.igem.org/lazy-static/thumbnails/215ea92e-b180-4cca-9977-88953506836a.jpgEPFL: Pyronix : The Next Generation of Firefighting (2025) - Team Presentation [English]**Title:** Pyronix : The Next Generation of Firefighting **Description:** Pyronix is a synthetically produced hydrogel designed to contain wildfires. Eco-friendly and biodegradable, it offers a new way to fight fires without harming the environment. Made of cellulose, chitosan, and silica, all produced by engineered microorganisms, our gel forms a fire-retardant barrier that protects ecosystems without leaving toxic residues. Deployed by autonomous drones, Pyronix supports safer, smarter wildfire containment. This video underlines all major components discussed and highlights main findings. To find out more about Pyronix, visit our Wiki! [Wiki](https://2025.igem.wiki/epfl) | [Official Page](https://teams.igem.org/5590)https://static.igem.org/peertube/streaming-playlists/hls/1d1162e7-0d1d-4757-aa12-980a1ff8d65e/1633b832-acf6-45bb-8a03-21a5abe8b474-master.m3u8https://video.igem.org/videos/embed/4AbQTx2JqnHrfGPjFywoGE89502772025-10-15T03:13:19.823ZYES2025 PresentationsNOhttps://video.igem.org/w/rDyWBAbtFn5MRSYWvQpB36https://video.igem.org/lazy-static/thumbnails/8339d178-b88a-431e-856c-47548679e313.jpgBUCT: POLYGONE: Development of marine high-efficiency polyester-degrading enzyme (2025) - Team Pr...**Title:** POLYGONE: Development of marine high-efficiency polyester-degrading enzyme **Description:** Polyester plastics (PET/PBAT/PLA) persist in marine environments and form harmful microplastics. To tackle source-level persistence and end-of-pipe remediation we combined marine-enzyme discovery, computational protein redesign and AI-driven mutation design, inorganic CaCO₃–SiO₂ immobilization compatible with melt processing, and an E. coli dual-anchor surface-display (adhesion + SpyTag/SpyCatcher-tethered hydrolase). A marine hydrolase (“2013”) was mined, characterized and redesigned to a soluble active variant (SEQ4); immobilization conferred thermal robustness with ≈40% activity retained after brief high-temperature treatment, supporting processing compatibility. Enzyme-containing films exhibited accelerated surface erosion in 28-day real-seawater assays; the dual-anchor strain enhanced local TPA release versus controls; and a rapid hydroxylation–Fenton fluorescence assay enabled sensitive TPA quantification. Future work will optimize kinetics for high-crystallinity PET, scale immobilization/compounding to pilot, integrate a genetically encoded TPA biosensor, and assess environmental fate, safety and regulatory pathways. [Wiki](https://2025.igem.wiki/buct) | [Official Page](https://teams.igem.org/5566)https://static.igem.org/peertube/streaming-playlists/hls/cfb34977-8ff6-43ef-908a-2d252081d99d/832b1206-5217-4210-a48a-973a189490b9-master.m3u8https://video.igem.org/videos/embed/rDyWBAbtFn5MRSYWvQpB368610302025-10-15T03:32:39.014ZYES2025 PresentationsNOhttps://video.igem.org/w/sfxJP6mxGtfkPieo2nSaqWhttps://video.igem.org/lazy-static/thumbnails/f3e9cf1c-3871-4ccf-b6cb-1b78dd5be1a1.jpgLatvia-Riga: Caseinova - Biocompatible Matrix for Burn Wound Healing (2025) - Team Presentation [...**Title:** Caseinova - Biocompatible Matrix for Burn Wound Healing **Description:** Burn injuries affect over 10 million people annually, often resulting in infection, scarring, and long-term disability. Existing treatments - silver-based creams, conventional dressings, and biological materials - each have limitations in infection control, biocompatibility, and regenerative support. To address these challenges, we are developing biocompatible, multifunctional wound-healing system integrating structural, protective, and antimicrobial functions. The system combining recombinant casein-propolis scaffold that mimics the extracellular matrix with a casein-hyaluronic acid hydrogel layer loaded with bacteriophages for targeted antibacterial action ensures a moist environment, prevents infection without antibiotics, and promotes natural tissue repair. By merging regenerative biomaterials with specific and broad-spectrum antimicrobial mechanisms, our approach offers a patient-centered, cost-effective alternative to conventional burn care - minimizing pain, reducing dressing changes, and mitigating antimicrobial resistance risks. Guided by expert consultations and community engagement, Caseinova reflects an intersection of biotechnology, design, and compassion — reimagining how science can help wounds heal naturally and responsibly. [Wiki](https://2025.igem.wiki/latvia-riga) | [Official Page](https://teams.igem.org/5728)https://static.igem.org/peertube/streaming-playlists/hls/d49593c7-68d5-48b5-8455-d68f7ef194aa/38a4bfd3-1b6c-4fa4-b698-30d6d70df3fa-master.m3u8https://video.igem.org/videos/embed/sfxJP6mxGtfkPieo2nSaqW8770442025-10-15T03:38:09.241ZYES2025 PresentationsNOhttps://video.igem.org/w/fq2gdZWi7h1ZcAjikwKeRehttps://video.igem.org/lazy-static/thumbnails/ba9c47fb-b3fa-4cae-bb7f-0b1f8d77a823.jpgSustech-Med: MAGIC: Engineered Bacteria for Macrophage-Activated c-di-GMP Immuno... (2025) - Team...**Title:** MAGIC: Engineered Bacteria for Macrophage-Activated c-di-GMP Immunotherapy in Colorectal Cancer **Description:** MAGIC is a project by Sustech-Med that engineers E. coli to deliver c-di-GMP and reprogram macrophages for colorectal-cancer immunotherapy. Guided by expert insights and human-practice reflections, we built a system that balances innovation, safety, and social responsibility—bringing synthetic biology closer to real-world impact. [Wiki](https://2025.igem.wiki/sustech-med) | [Official Page](https://teams.igem.org/5638)https://static.igem.org/peertube/streaming-playlists/hls/74ba91db-61c5-4625-b0f4-5af7637da8b3/fb6a127a-8df4-4e55-9f57-dabd214b1867-master.m3u8https://video.igem.org/videos/embed/fq2gdZWi7h1ZcAjikwKeRe8430182025-10-15T03:46:26.170ZYES2025 PresentationsNOhttps://video.igem.org/w/4DmS9mbp1rL3vVcjDLjN3Hhttps://video.igem.org/lazy-static/thumbnails/915767f9-5573-4920-922e-193f65a477b1.jpgShanghai-SDG: SCG Detoxification: A Solution for Transforming Waste Coffee Groun... (2025) - Team...**Title:** SCG Detoxification: A Solution for Transforming Waste Coffee Grounds into Biofertilizers **Description:** The spent coffee ground (SCG) holds significant potential for producing organic fertilizers. Residual caffeine, however, inhibits plant growth due to its phytotoxicity, substantially limiting the application of SCG in bio-fertilizer production. Conventional decaffeination methods suffer from high costs and environmental concerns. Here, we genetically engineered Escherichia coli (E. coli) by integrating genes involved in caffeine degradation, aiming to remove the residual caffeine from SGG during fermentation while producing valuable biofertilizers. Our project provides an eco-friendly and cost-effective solution for the recycling of SCG. The safety and scalability of the engineered E. coli ensure its broad applicability in agriculture, horticulture, and environmental protection. [Wiki](https://2025.igem.wiki/shanghai-sdg) | [Official Page](https://teams.igem.org/5988)https://static.igem.org/peertube/streaming-playlists/hls/1d82cb30-5241-4f6e-83c8-57b063cf15c5/8020928b-07f4-4e65-b5b8-2bc93e06a834-master.m3u8https://video.igem.org/videos/embed/4DmS9mbp1rL3vVcjDLjN3H8340142025-10-15T03:54:38.509ZYES2025 PresentationsNOhttps://video.igem.org/w/oupqy4cQ5Uj8TLARhmDBT9https://video.igem.org/lazy-static/thumbnails/2be75e80-c5c4-4b7b-a621-1e72a3b9a15e.jpgMcMaster-Canada: REACT - Renal Ease-of-use Assessment for Clinical Transplant (2025) - Team Prese...**Title:** REACT - Renal Ease-of-use Assessment for Clinical Transplant **Description:** Globally, 15% of all kidney transplants face acute rejection, often before symptoms are noticeable. Contemporary detection methods are often done too late and face tradeoffs between invasiveness, accuracy, portability, and cost-effectiveness. We present REACT, a portable and highly sensitive point of care diagnostic for the early-onset detection of kidney rejection. REACT senses two known biomarkers of kidney distress, NGAL and CXCL-9, and uses Rolling Circle Amplification to boost signal output. A G4 DNAzyme functionalized on a reduced Graphene Oxide surface coupled with paper microfluidics allows for a multiplexed colorimetric detection, facilitated by our smartphone app to quantify and interpret the readout. Given the portable nature of REACT, users can use it outside of a hospital setting, allowing for early at-home detection of kidney rejection. This shortens the length of post-transplant hospital stay and decreases the risk of complications resulting from an untreated rejection. [Wiki](https://2025.igem.wiki/mcmaster-canada) | [Official Page](https://teams.igem.org/5856)https://static.igem.org/peertube/streaming-playlists/hls/b6204fab-c686-4e84-ab61-ccd1fcef5bca/f23bf6f4-ddaf-49c8-aa7b-165b3a6ed1a5-master.m3u8https://video.igem.org/videos/embed/oupqy4cQ5Uj8TLARhmDBT98910342025-10-15T04:28:53.389ZYES2025 PresentationsNOhttps://video.igem.org/w/e4mKoFSaYHtuiA8shY5CZchttps://video.igem.org/lazy-static/thumbnails/173bdf58-c20c-4909-851a-0ea17cbff743.jpgGEC-Guangzhou: Smart Biosensor for Early Detection and Control of Bacterial Wilt (2025) - Team Pr...**Title:** Smart Biosensor for Early Detection and Control of Bacterial Wilt **Description:** Bacterial wilt, caused by Ralstonia solanacearum, devastates over 400 crops including tomatoes and peppers, with field incidence rates reaching 50–80% in southern China. To address the challenge of hidden early infection, we engineered a smart biosensor that detects the pathogen’s AHL signaling molecules and produces a visible blue signal（indigo） for rapid field diagnosis. In addition, a companion strain synthesizes salicylic acid (SA), a natural plant immune signal, to enhance crop resistance. This low-cost, portable, and farmer-friendly system enables early detection and targeted intervention, providing an innovative solution for managing bacterial wilt and reducing agricultural losses. [Wiki](https://2025.igem.wiki/gec-guangzhou) | [Official Page](https://teams.igem.org/5877)https://static.igem.org/peertube/streaming-playlists/hls/69bed204-1cdc-4be9-a085-145897850425/63506158-13b0-4d68-98ee-bf843bad388a-master.m3u8https://video.igem.org/videos/embed/e4mKoFSaYHtuiA8shY5CZc8950422025-10-15T04:46:18.478ZYES2025 PresentationsNOhttps://video.igem.org/w/xb1siqyCTkfd4nzhMRkd1Ghttps://video.igem.org/lazy-static/thumbnails/01a20464-9c6b-4268-83e9-c455a9a29521.jpgSHSID: Microbial Detection and Remediation of Hexavalent Chromium (2025) - Team Presentation [Eng...**Title:** Microbial Detection and Remediation of Hexavalent Chromium **Description:** We aim to design a biosensor for detecting hexavalent chromium (Cr) using synthetic biology techniques, while utilizing soluble flavoprotein ChrR and YieF to achieve effective reduction of hexavalent Cr in Escherichia coli BL21(DE3); A biosensor based on the pigment protein AmilCP is used to detect the presence of hexavalent Cr, and the concentration of reduced hexavalent Cr is determined using the diphenylcarbazide spectrophotometric method; By employing a safe microbial method, this approach achieves a more efficient, convenient, and environmentally friendly mitigation of hexavalent Cr toxicity. [Wiki](https://2025.igem.wiki/shsid) | [Official Page](https://teams.igem.org/5737)https://static.igem.org/peertube/streaming-playlists/hls/fc7103ff-1bc7-4749-b532-46e8c63fad80/661ff44c-e9f1-43ea-9de7-84dd62c4c8c9-master.m3u8https://video.igem.org/videos/embed/xb1siqyCTkfd4nzhMRkd1G8800392025-10-15T04:46:36.897ZYES2025 PresentationsNOhttps://video.igem.org/w/3bavgCjRT2EL6CF2RLhRQ7https://video.igem.org/lazy-static/thumbnails/4b68921a-498d-4221-ae1c-47f6ab7c02e3.jpgUSherbrooke: Microbial Power: Integrating Fuel Cells into Hydroponic Greenhouses (2025) - Team Pr...**Title:** Microbial Power: Integrating Fuel Cells into Hydroponic Greenhouses **Description:** We explored how bacteria can generate electricity to power sustainable hydroponic greenhouses. By designing a microbial fuel cell using a bacterial consortium, we aimed to create an eco-friendly system where waste becomes energy. Beyond the lab, our team developed a mathematical model to predict and optimize energy production, and conducted a market study to evaluate the potential impact of this innovation in real-world agricultural systems. We also believe that science should be accessible to everyone. That’s why we created educational activities and outreach events to share the excitement of synthetic biology with students and the public. [Wiki](https://2025.igem.wiki/usherbrooke) | [Official Page](https://teams.igem.org/5756)https://static.igem.org/peertube/streaming-playlists/hls/119d928d-1c38-430f-899e-c07644f1a96a/4b9b2ca4-ea6e-47b2-b7c1-822be9a8ed9c-master.m3u8https://video.igem.org/videos/embed/3bavgCjRT2EL6CF2RLhRQ79020432025-10-15T04:54:00.924ZYES2025 PresentationsNOhttps://video.igem.org/w/959RZ1D5fQ8LjrFAq4eSuChttps://video.igem.org/lazy-static/thumbnails/2be927fd-2891-4297-94da-81feb232be69.jpgULaval: Totaly [Fe]rocious, a Trojan Horse Like Antibiotic Alternative (2025) - Team Presentation...**Title:** Totaly [Fe]rocious, a Trojan Horse Like Antibiotic Alternative **Description:** Watch this quick presentation to get up to speed with iGEM ULaval's Totaly [Fe]rocious project. The Totally [Fe]rocious project aims to repurpose the clever strategy of the Greeks' Trojan Horse, except this time on the nanoscale. In this battle, the bacterial siderophore aerobactin acts as the "Trojan horse", while gold nanoparticles act as the "soldiers" to infiltrate the MDR K. pneumonia, our "Troy", showcasing an alternative to traditional antibiotic therapy for drug resistant bacterium. [Wiki](https://2025.igem.wiki/ulaval) | [Official Page](https://teams.igem.org/5653)https://static.igem.org/peertube/streaming-playlists/hls/415d8bad-ef4f-4f5f-bbbb-ec7187753cbc/a0ec58c3-8b0e-47c5-b7e6-c37538cfa73e-master.m3u8https://video.igem.org/videos/embed/959RZ1D5fQ8LjrFAq4eSuC8700122025-10-15T04:56:49.961ZYES2025 PresentationsNOhttps://video.igem.org/w/hWj2zrruUoV4SVe9LLqpq8https://video.igem.org/lazy-static/thumbnails/ac30602e-63b7-43aa-ace7-f909e51bbfc5.jpgDNHS-SanDiego-Ca: Granulyze (2025) - Team Presentation [English]**Title:** Granulyze **Description:** This year, our team worked on a two-part synthetic biology solution for ALS. ALS involves the buildup of TDP-43 protein clumps caused by stress granules in nerve cells. We used two strategies: antisense oligonucleotides (ASOs) to reduce proteins that form stress granules, and RNA aptamers to stop TDP-43 from clumping. We’ve also conducted several community education and outreach initiatives to spread awareness about synthetic biology and ALS. [Wiki](https://2025.igem.wiki/dnhs-sandiego-ca) | [Official Page](https://teams.igem.org/5697)https://static.igem.org/peertube/streaming-playlists/hls/89277de5-a1d5-4017-98e7-5774f4ff3533/185a2206-e42a-4acb-bcc3-b12844b3652a-master.m3u8https://video.igem.org/videos/embed/hWj2zrruUoV4SVe9LLqpq88940252025-10-15T04:50:10.535ZYES2025 PresentationsNOhttps://video.igem.org/w/3wbEK7rRKSjSa3Y3yJkHgghttps://video.igem.org/lazy-static/thumbnails/d511168c-b721-48fa-92df-9c1a683b3e7f.jpgWUXI-DSAS: Mars Farm: Sowing New Hope in Adversity (2025) - Team Presentation [English]**Title:** Mars Farm: Sowing New Hope in Adversity **Description:** With the advancement of space technology, human migration to Mars may become a reality in the near future. However, the extreme dryness and temperature conditions on the Martian surface make it impossible for Earth's crops to grow normally, jeopardizing human survival. To address this challenge, the WUXI-DSAS team has proposed a solution: endowing plants with tolerance to the Martian environment. By integrating genes with various stress-resistant functions into plants, their ability to withstand extreme conditions is enhanced, thereby reducing the energy and water consumption of plant greenhouses. Ultimately, this could enable plants to be directly cultivated on the Martian surface. Additionally, this technology can be applied to crop cultivation under extreme conditions on Earth. We firmly believe that one day, we will sow seeds of hope on the surface of Mars. [Wiki](https://2025.igem.wiki/wuxi-dsas) | [Official Page](https://teams.igem.org/5723)https://static.igem.org/peertube/streaming-playlists/hls/14692a30-674c-4299-a801-f79f295b8451/deb9f691-e4a7-4464-8843-186355e0a37d-master.m3u8https://video.igem.org/videos/embed/3wbEK7rRKSjSa3Y3yJkHgg893072025-10-15T04:59:35.901ZYES2025 PresentationsNOhttps://video.igem.org/w/s6r69Dg16mWFV2orYnrw9Bhttps://video.igem.org/lazy-static/thumbnails/c314a7e2-811d-43e6-8c68-0f64ce40c4af.jpgBioplus-Shanghai: Illuminating NO, Alarming Cardiovascular Crises (2025) - Team Presentation [Eng...**Title:** Illuminating NO, Alarming Cardiovascular Crises **Description:** This study innovatively developed a novel genetically encoded NO fluorescent probe based on synthetic biology. The probe utilizes genetically engineered E. coli as a biological vector, coupling a precisely designed NO-sensing protein module with a fluorescent reporting system to achieve highly sensitive and specific real-time monitoring of nitric oxide (NO). As a crucial signaling molecule in cardiovascular diseases, this technology provides a groundbreaking dynamic monitoring approach for early diagnosis of conditions such as atherosclerosis and hypertension.Compared with traditional detection methods, this probe demonstrates significant advantages including simple operation, low cost, and capability for long-term continuous monitoring. [Wiki](https://2025.igem.wiki/bioplus-shanghai) | [Official Page](https://teams.igem.org/5762)https://static.igem.org/peertube/streaming-playlists/hls/d34fc917-a8f5-457e-8620-2da4950a79a3/e7cf3d0c-75e3-41ac-aeef-f82dc2a150c0-master.m3u8https://video.igem.org/videos/embed/s6r69Dg16mWFV2orYnrw9B8630142025-10-15T05:01:55.993ZYES2025 PresentationsNOhttps://video.igem.org/w/gVA9AmjEU32XLJfAY9Uqwkhttps://video.igem.org/lazy-static/thumbnails/9759785a-ce65-4e4f-925b-3f9de9a3c820.jpgUTDallas: Stress protection of tardigrade IDPs for vaccine stability applications (2025) - Team P...**Title:** Stress protection of tardigrade IDPs for vaccine stability applications **Description:** Protecting mRNA from heat-based degradation using 10 different tardigrade proteins implicated in whole-cell stress resistance, with applications in vaccine stability. [Wiki](https://2025.igem.wiki/utdallas) | [Official Page](https://teams.igem.org/5774)https://static.igem.org/peertube/streaming-playlists/hls/80f48b53-faf9-4b89-a381-bda80e43835f/f2672365-0f05-4fac-93f9-60ab19dcb9bf-master.m3u8https://video.igem.org/videos/embed/gVA9AmjEU32XLJfAY9Uqwk7100212025-10-15T05:02:34.156ZYES2025 PresentationsNOhttps://video.igem.org/w/fHBdpuwSBLTTgvURsV1eq5https://video.igem.org/lazy-static/thumbnails/874d8266-2c4a-4dcb-96ec-81fae9ec4837.jpgRio-UFRJ-Brazil: DiagSyn | Team RIO-UFRJ-BRAZIL (2025) - Team Presentation [English]**Title:** DiagSyn | Team RIO-UFRJ-BRAZIL **Description:** Team RIO-UFRJ-BRAZIL proudly presents DiagSyn, our synthetic biology platform for the rapid and specific diagnosis of arboviruses such as dengue, Zika, and chikungunya. In this video, we share our journey throughout the iGEM 2025 season, including the development of our diagnostic design, experimental validation, and results achieved during the competition. [Wiki](https://2025.igem.wiki/rio-ufrj-brazil) | [Official Page](https://teams.igem.org/5813)https://static.igem.org/peertube/streaming-playlists/hls/772f231b-3d2c-43d9-a247-e81a0baf1218/df1b62be-c739-4a08-b4e0-7c007194129c-master.m3u8https://video.igem.org/videos/embed/fHBdpuwSBLTTgvURsV1eq58590352025-10-15T05:25:07.850ZYES2025 PresentationsNOhttps://video.igem.org/w/dAam3XfXDUBZkfkSRh1kgxhttps://video.igem.org/lazy-static/thumbnails/9f4a5f10-e42c-40e5-b794-c8b57274d794.jpgNYC-Empire-State: NYC Empire State: VERDE (2025) - Team Presentation [English]**Title:** NYC Empire State: VERDE **Description:** This year, our team tackled fungal root rot in hydroponics, a major threat to a multibillion dollar industry. [Wiki](https://2025.igem.wiki/nyc-empire-state) | [Official Page](https://teams.igem.org/5814)https://static.igem.org/peertube/streaming-playlists/hls/65f2b62b-1deb-44b9-bd65-e2a284b629d1/690a8a6a-c7b3-4f28-ade9-a86f1696ce2e-master.m3u8https://video.igem.org/videos/embed/dAam3XfXDUBZkfkSRh1kgx9030272025-10-15T05:24:49.380ZYES2025 PresentationsNOhttps://video.igem.org/w/qbpqnLL9VuekxQCR9972g9https://video.igem.org/lazy-static/thumbnails/54e7f639-a387-49ec-9067-89e1a0a4fccc.jpgCCA-San-Diego: ParkinSolve (2025) - Team Presentation [English]**Title:** ParkinSolve **Description:** Parkinson’s Disease (PD) is a progressive neurodegenerative disorder characterized by dopaminergic neuron loss and microglial-driven inflammation. Current treatments only alleviate symptoms without halting disease progression. But CCA-San-Diego has a solution: ParkinSolve! We engineered CHO cells to secrete anti-inflammatory proteins (IL-1RA, IFNγR-Fc, and TLR4-Fc) that modulate microglial activation and protect neurons. Using a Tet-On 3G system, we achieved precise, doxycycline-inducible control of therapeutic protein expression. Conditioned media from transfected CHO cells improved BV2 microglial survival under rotenone-induced oxidative stress, with TLR4-Fc showing the strongest neuroprotective effect. This system demonstrates a controllable mammalian cell-based platform for adaptive, anti-inflammatory therapeutics in neurodegenerative disease. We also undertook many ethical considerations and perspectives with our project, all organized and demonstrated with intention via our HP model. Our team also took on many educational initiatives to educate our community about synthetic biology and NDD. [Wiki](https://2025.igem.wiki/cca-san-diego) | [Official Page](https://teams.igem.org/5678)https://static.igem.org/peertube/streaming-playlists/hls/c3cf32e3-f638-4c78-afc6-3a82da9f5942/968b1ca8-83eb-4d0d-b8da-80e7a7c98521-master.m3u8https://video.igem.org/videos/embed/qbpqnLL9VuekxQCR9972g97680212025-10-15T05:30:42.872ZYES2025 PresentationsNOhttps://video.igem.org/w/qpyPU1CAnMaU6a4qVzM89dhttps://video.igem.org/lazy-static/thumbnails/99ff3032-996b-49c4-8374-a03ff6652824.jpgGHCIS: Constructing Efficient Plectasin-Producing Pichia pastoris via Regulatory... (2025) - Team...**Title:** Constructing Efficient Plectasin-Producing Pichia pastoris via Regulatory Element Engineering **Description:** A High-Yield Plectasin Yeast Cell Factory: Constructing Efficient Plectasin-Producing Pichia pastoris via Regulatory Element Engineering Antimicrobial peptides (AMPs) are defensive small peptides produced by organisms in response to pathogenic bacteria. They have a broad spectrum of antimicrobial activity, small molecular size, low propensity to induce resistance, as well as good thermal stability and water solubility. These features make AMPs one of the most promising alternatives to antibiotics. Plectasin is a fungal antimicrobial peptide that can effectively inhibit the growth and reproduction of Gram-positive pathogenic bacteria and is widely used in the development of feed additives. Currently, AMPs are mainly obtained through isolation, purification, or chemical synthesis, but these methods suffer from low yield and high cost. Producing AMPs using genetically engineered microorganisms can address these limitations to some extent, as this method can generate target-specific AMPs with the potential for increased yield through technological improvements, lower costs, and broader applications, making it an ideal approach for AMP production. Pichia pastori is considered a safe model microorganism, with high safety, simple and economical culture conditions, and efficient protein secretion capability, offering more advantages compared to bacterial expression systems. In this study, the Plectasin gene is integrated into the Pichia pastoris genome, and by screening strong promoters and signal peptides, we construct a high-yield Plectasin-producing P. pastoris strain to promote the commercial production of Plectasin. [Wiki](https://2025.igem.wiki/ghcis) | [Official Page](https://teams.igem.org/5967)https://static.igem.org/peertube/streaming-playlists/hls/c5a5aa07-226d-4c26-abb2-40e711828890/b961540e-d738-4645-a6fa-28c20d5da53c-master.m3u8https://video.igem.org/videos/embed/qpyPU1CAnMaU6a4qVzM89d8950262025-10-15T05:38:22.087ZYES2025 PresentationsNOhttps://video.igem.org/w/wbXEdzNSGo9YobzR5zH9e9https://video.igem.org/lazy-static/thumbnails/2da74ab7-1ff9-4b75-84e7-4d160693d3b1.jpgNEBS-VCA: Protein PBS Framework Enables Mechanistic Insights and Engineering of ... (2025) - Team...**Title:** Protein PBS Framework Enables Mechanistic Insights and Engineering of Robust Biocatalysts for Plastic Depolymerization **Description:** Our team's presentation video covers our project, which addresses plastic pollution by integrating AI-driven strategies, physics-based computational methods, and innovative polymer chemistry. We begin by highlighting the severity of plastic pollution: over 350 million tons of plastic are produced worldwide each year; less than 10% is recycled; and the rest harms ecosystems. We also note that existing PET hydrolases aren’t efficient or economical for industry, while many bio-based polyesters degrade too slowly. To solve these issues, we engineered high-performance PET hydrolases, such as TurboPETase, using tools like the AI-powered PBS computational model and directed evolution to boost PET depolymerization. We explored enzyme catalytic mechanisms via simulations and developed controlled-degradable bio-based polyesters, such as PBTDP and PBFTd. We also created a closed-loop plastic treatment system that combines enzyme degradation, novel material design, and recycling, offering a sustainable pathway toward a cleaner planet. Then, we also discuss our human practices, including public surveys, expert interviews, company consultations, and age-specific education activities. Finally, we talk about safety rules, next steps, aiming to build a scalable enzymatic PET recycling system and a closed-loop cycle for sustainable plastics. [Wiki](https://2025.igem.wiki/nebs-vca) | [Official Page](https://teams.igem.org/6008)https://static.igem.org/peertube/streaming-playlists/hls/f479e605-a255-4822-9d31-d90eab17b4d2/58417011-356f-43bb-af3f-8db09d1bf84e-master.m3u8https://video.igem.org/videos/embed/wbXEdzNSGo9YobzR5zH9e98120182025-10-15T05:37:00.769ZYES2025 PresentationsNOhttps://video.igem.org/w/9viapXzwq36B2vka1FUaYdhttps://video.igem.org/lazy-static/thumbnails/7e1e6686-de34-43b3-8ed6-3920094b04a8.jpgTabor: Seawolves: A Novel Solution to Marine Nitrate Pollution (2025) - Team Presentation [English]**Title:** Seawolves: A Novel Solution to Marine Nitrate Pollution **Description:** Nitrogen pollution is when a high level of reactive nitrogen source, like nitrate, floods a water source, fueling eutrophication. Marine nitrogen pollution has been a long going problem in Buzzards Bay, Sippican Harbor. To solve this isuue Tabor Academy’s project Seawolves tackles nitrogen pollution by engineering the marine diatom Phaeodactylum tricornutum with extra nitrate-reductase capacity (using the pPha-T1 system) to accelerate conversion of NO₃⁻ → NO₂⁻ and help reduce algal blooms. This video walks through the local problem, our synthetic-biology approach, methods, preliminary progress, community outreach, and safety considerations — and explains how a school team hopes to make a measurable difference for our harbor. [Wiki](https://2025.igem.wiki/tabor) | [Official Page](https://teams.igem.org/5921)https://static.igem.org/peertube/streaming-playlists/hls/44e04158-09c3-4bcd-9810-e4fd74a1bb50/b3728ac7-8501-4bcc-85d4-27a1f46468b2-master.m3u8https://video.igem.org/videos/embed/9viapXzwq36B2vka1FUaYd4760202025-10-15T05:52:33.293ZYES2025 PresentationsNOhttps://video.igem.org/w/8PAtsJg89f4WzsfgqsNXuShttps://video.igem.org/lazy-static/thumbnails/ca14c311-255f-4f30-854e-19a80e85ccc7.jpgPuiChing-Macau: Bioreactive heritage protection (2025) - Team Presentation [English]**Title:** Bioreactive heritage protection **Description:** Bioreactive Heritage Protection Using Engineered E.coli with Enhanced Sulfur Reduction and Biosilica Coating Our home, Macau, is renowned for its concentrated and well-preserved cultural heritage sites. The Historic Centre of Macao, which has a collection of over 20 sites, was inscribed on the UNESCO World Heritage List in 2005 for the reason that it “bears witness to one of the earliest and longest-lasting encounters between China and the West, based on the vibrancy of international trade.” This year, we are innovating and invigorating HERITAGE CONSERVATION in Macau using synthetic biology. It is our mission to protect our city’s heritage buildings, ensuring their long-term sustainability in the face of a rapidly changing climate. [Wiki](https://2025.igem.wiki/puiching-macau) | [Official Page](https://teams.igem.org/5685)https://static.igem.org/peertube/streaming-playlists/hls/3f552c3e-fdd6-4332-b4f9-681b0c793bd6/0f79b457-edff-4291-8836-933e24ad3caf-master.m3u8https://video.igem.org/videos/embed/8PAtsJg89f4WzsfgqsNXuS7750322025-10-15T05:49:59.017ZYES2025 PresentationsNOhttps://video.igem.org/w/wp45LC161LYf5zLmUDry2Qhttps://video.igem.org/lazy-static/thumbnails/4e83a87d-8b2e-4582-b4d7-3501716d9b4d.jpgAGORA-KOR: Ginsenoside vs. Microplastics: How is the Result? (2025) - Team Presentation [English]**Title:** Ginsenoside vs. Microplastics: How is the Result? **Description:** Our video represents the finalized result of ginsenoside vs. microplastics. [Wiki](https://2025.igem.wiki/agora-kor) | [Official Page](https://teams.igem.org/5993)https://static.igem.org/peertube/streaming-playlists/hls/f62a2a7f-0e41-44e5-b307-67fcb20aa6a2/c327b206-b395-400c-9cb9-8f30dd39443b-master.m3u8https://video.igem.org/videos/embed/wp45LC161LYf5zLmUDry2Q6520322025-10-15T05:52:08.130ZYES2025 PresentationsNOhttps://video.igem.org/w/7pNuGCpi4F4rEgw2XMNu1hhttps://video.igem.org/lazy-static/thumbnails/2282b61f-f449-4880-84d8-82952a276a18.jpgASU: UNIglobin - A Portable Enzymatic Kit for Universal Blood Conversion (2025) - Team Presentati...**Title:** UNIglobin - A Portable Enzymatic Kit for Universal Blood Conversion **Description:** As an essential medicine, blood should be “available at all times, in adequate amounts and in appropriate dosage forms, with assured quality and affordability,” according to the World Health Organization (WHO). However as it stands in 2024, blood still fails to meet the availability and safety qualities in over half the world’s countries. Our solution is a compact, field ready ABO blood conversion kit. We have identified, cloned, and characterized activity for glycoside hydrolase enzymes from Akkermansia muciniphila. These enzymes have the ability to cleave off the A and B blood antigens and their extended antigen groups and can be lyophilized for long term storage. Our complete kit also includes a filtering system made of biological materials to remove immune reactive white blood cells and a Miniaturized Electronic Antigen Biosensor (MEAB) for rapid quantification of ABO antigens. Together these technologies can process safe, universally compatible blood available, anytime, anywhere. [Wiki](https://2025.igem.wiki/asu) | [Official Page](https://teams.igem.org/5679)https://static.igem.org/peertube/streaming-playlists/hls/33e99795-de68-4fe8-a8b6-c6fa3ec98ca0/1eb381d9-62a6-40ba-8427-9d97c1d70b4c-master.m3u8https://video.igem.org/videos/embed/7pNuGCpi4F4rEgw2XMNu1h8800312025-10-15T05:56:50.418ZYES2025 PresentationsNOhttps://video.igem.org/w/qxYVEzBdJeSWzKbahrGSAJhttps://video.igem.org/lazy-static/thumbnails/2990079c-4167-4e02-b371-c0607cb1b6ac.jpgHopkins: PolyGone, A Synthetic Biology Based Fish Feed Additive that Fights Micr... (2025) - Team...**Title:** PolyGone, A Synthetic Biology Based Fish Feed Additive that Fights Microplastics **Description:** PolyGone seeks to improve human health by eliminating the microplastics that have accumulated in our seafood. With synthetic biology, PolyGone engineered probiotics can enzymatically degrade plastic in fish guts, helping to create a cleaner diet and a cleaner world. This video describes the wetlab, drylab, and human practices work we did to validate PolyGone and bring it to life. [Wiki](https://2025.igem.wiki/hopkins) | [Official Page](https://teams.igem.org/5914)https://static.igem.org/peertube/streaming-playlists/hls/c6d27755-8301-4fd0-915d-57b8a2ceadf6/f87240aa-2a5a-4c50-b624-87c794a11f8a-master.m3u8https://video.igem.org/videos/embed/qxYVEzBdJeSWzKbahrGSAJ8820222025-10-15T06:02:30.849ZYES2025 PresentationsNOhttps://video.igem.org/w/oXGoDKBsEJ5Ei6gANhxUJ6https://video.igem.org/lazy-static/thumbnails/14d7b756-c42f-4d9e-85b8-cebe643e61f0.jpgUFlorida: Osteocalcin Protein Binder Creation (2025) - Team Presentation [English]**Title:** Osteocalcin Protein Binder Creation **Description:** Our Project Presentation video about Generative Design of Osteocalcin Protein Binder for Point of Care Based Sensor. [Wiki](https://2025.igem.wiki/uflorida) | [Official Page](https://teams.igem.org/5969)https://static.igem.org/peertube/streaming-playlists/hls/b9efd973-9597-44ea-9585-8ff0db521c71/67c03e1c-e1e4-4dc9-9fc3-eb98840a30c6-master.m3u8https://video.igem.org/videos/embed/oXGoDKBsEJ5Ei6gANhxUJ6903092025-10-15T06:11:31.204ZYES2025 PresentationsNOhttps://video.igem.org/w/x6SCSLPj4wbkM1iQxGeR5Chttps://video.igem.org/lazy-static/thumbnails/f5ee050d-db24-4a3c-8b1f-8abc28db92fd.jpgPekingHSC: Reprogramming SAM Metabolism through RNA Logic (2025) - Team Presentation [English]**Title:** Reprogramming SAM Metabolism through RNA Logic **Description:** Our project brought together three dimensions. In the wet lab, we created a SAM-responsive therapeutic that restores balance at the molecular level. In the dry lab, we built AI models and an integrated software platform that make RNA design smarter and more accessible. And in human practices, we made inclusivity central, addressing stigma and empowering vulnerable groups. [Wiki](https://2025.igem.wiki/pekinghsc) | [Official Page](https://teams.igem.org/5789)https://static.igem.org/peertube/streaming-playlists/hls/fbdd3904-2439-4927-8539-04c47abb2e58/9873b0ba-f2af-45d0-93fc-243bb9efa118-master.m3u8https://video.igem.org/videos/embed/x6SCSLPj4wbkM1iQxGeR5C8040132025-10-15T06:08:49.453ZYES2025 PresentationsNOhttps://video.igem.org/w/4uvLQk5fCwDvVTAhHTTrqdhttps://video.igem.org/lazy-static/thumbnails/9f8ecfc4-3921-4e3c-b437-f4a8c1976424.jpgSHSBNU-China: ARMOR: Using Hagfish Protein as a Repair Material forSpace (2025) - Team Presentati...**Title:** ARMOR: Using Hagfish Protein as a Repair Material forSpace **Description:** Hagfish living in the deep sea produce two special proteins: intermediate filament protein and mucin protein. We use intermediate filament protein as the final aerospace repair material. By simplifying part of the structure of the intermediate filament protein and adding some other biological components, its properties will be further enhanced. By adding the proteins we have made into space equipment and enhancing their properties, Space equipment can repair itself. It has increased the usage time of the equipment. [Wiki](https://2025.igem.wiki/shsbnu-china) | [Official Page](https://teams.igem.org/5639)https://static.igem.org/peertube/streaming-playlists/hls/1c4696fc-d207-47be-a69e-378053f4cec8/7fb2dc64-6b1b-4d7c-810a-682d3543b114-master.m3u8https://video.igem.org/videos/embed/4uvLQk5fCwDvVTAhHTTrqd8930492025-10-15T06:55:36.276ZYES2025 PresentationsNOhttps://video.igem.org/w/8QHUT5awxuQNMSDgT23xXPhttps://video.igem.org/lazy-static/thumbnails/6e6f7f1c-7da6-4ae4-a405-77af592b0ce1.jpgBoston-BOSLab: BloomBusters (2025) - Team Presentation [English]**Title:** BloomBusters **Description:** Cyanobacteria are photosynthetic microorganisms that can form harmful algal blooms. These blooms can lower oxygen levels, resulting in mass wildlife mortality. Microcystis aeruginosa, a common bloom-forming species, also produces the hepatotoxin microcystin, which accumulates in the food chain and induces severe physiological effects. Through rounds of discussion with experts, we found that early detection of microcystin is critical for effective management but remains limited. Current methods are slow, inconsistent, expensive, and unable to distinguish toxic from other strains. BloomBusters introduces a novel detection method based on CRISPR-SHERLOCK: an RNA-based fluorescent biosensor targeting toxin biosynthesis genes in Microcystis. This system enables rapid, sensitive, and specific detection of toxin-producing cyanobacteria within hours, allowing timely interventions and improved water safety. We demonstrated detection in mcyE/B RNA targets from Microcystis, allowing detection and management of toxic blooms using synthetic biology approaches, protecting ecosystems and public health before it’s too late. [Wiki](https://2025.igem.wiki/boston-boslab) | [Official Page](https://teams.igem.org/5696)https://static.igem.org/peertube/streaming-playlists/hls/3f7d8027-8c6d-42d7-a8ce-885d8454d281/e8e9d090-2f1a-4f94-b79c-0895b8acf79e-master.m3u8https://video.igem.org/videos/embed/8QHUT5awxuQNMSDgT23xXP8995622025-10-15T07:00:51.535ZYES2025 PresentationsNOhttps://video.igem.org/w/9iNscerxadB8D9By3qMoiYhttps://video.igem.org/lazy-static/thumbnails/43b91d28-d91a-47d7-a6ed-dcbb2e15c354.jpgUOttawa: ARBOGuard: The Future of Mosquito Repellence (uOttawa) (2025) - Team Presentation [English]**Title:** ARBOGuard: The Future of Mosquito Repellence (uOttawa) **Description:** Arthropod-borne diseases (ABDs) infect over a billion people each year and prevalence continues to rise due to climate change and urbanization. We introduce ARBOGuard: a novel approach to mosquito repellence that re-engineers the natural skin bacterium Staphylococcus epidermidis to repel mosquitoes and reduce ABD transmission. Using a dual-pronged genetic approach, we both suppress the production of L-lactic acid, a key mosquito attractant, and induce the biosynthesis of geraniol, a natural repellent already found in commercially available repellents (including DEET-free sprays and citronella candles). To deliver this molecular machinery, we engineer a recently discovered specific bacteriophage, Khosrow, specific to native S. epidermidis found on the skin. In this video, we will walk you through our bioengineering approach, statistical modelling work, clinical applications & safety considerations, commercialization & regulatory efforts, and use of feedback from our highly interdisciplinary team of advisors, to present ARBOGuard as a new frontier in mosquito repellence: one that uses built-in biology to produce safer, longer-lasting effects, and ultimately aiding to decrease the global prevalence of ABDs. [Wiki](https://2025.igem.wiki/uottawa) | [Official Page](https://teams.igem.org/5707)https://static.igem.org/peertube/streaming-playlists/hls/43456154-6e8b-4282-939e-7e6c4deb1872/b341f6f4-80b0-4cb6-8790-7c22ab9abfe4-master.m3u8https://video.igem.org/videos/embed/9iNscerxadB8D9By3qMoiY9035362025-10-15T07:48:19.950ZYES2025 PresentationsNOhttps://video.igem.org/w/7oePcEdMgBsjus2gaqe4Mkhttps://video.igem.org/lazy-static/thumbnails/824f2c6d-fb81-4050-8ddb-20c9b64e61d5.jpgBSDFZ-CHINA: Neurobloom: Early Interventionists for Alzheimer’s Disease (2025) - Team Presentatio...**Title:** Neurobloom: Early Interventionists for Alzheimer’s Disease **Description:** Alzheimer’s disease (AD) is a rapidly growing global health challenge, with limited options for early intervention. We developed Neurobloom, a synthetic-biology-based probiotic system using the safe strain E. coli Nissle 1917, featuring three integrated systems: System 1 enables continuous production of sakuranetin, reducing Aβ deposition and neuroinflammation through antioxidant and anti-inflammatory effects; System 2 produces lysophosphatidylcholine (LPC), which supports gut–brain axis regulation, improves synaptic function, and optimizes gut microbiota balance; System 3 incorporates a safety suicide circuit, ensuring the strain deactivates under abnormal conditions to minimize ecological risks. These systems work synergistically to deliver a sustainable, low-barrier, and adherence-friendly intervention, particularly suited for early-stage patients and high-risk populations. Neurobloom introduces a promising strategy for preventive and adjunctive AD care, paving the way toward more equitable and innovative cognitive health solutions worldwide. [Wiki](https://2025.igem.wiki/bsdfz-china) | [Official Page](https://teams.igem.org/6029)https://static.igem.org/peertube/streaming-playlists/hls/33b1b53d-13ad-4fdb-ab21-fb20f2190419/5ca6174e-4a16-4be6-b9b0-3e4b77e4657d-master.m3u8https://video.igem.org/videos/embed/7oePcEdMgBsjus2gaqe4Mk8180262025-10-15T08:09:27.673ZYES2025 PresentationsNOhttps://video.igem.org/w/w8ytBdxDBgh41wgxBP3YN8https://video.igem.org/lazy-static/thumbnails/01598eab-4da1-4d61-8916-29206d12c23b.jpgUNICAMP-Brazil: Pepcitrus: Peptides in defense of Citrus (2025) - Team Presentation [English]**Title:** Pepcitrus: Peptides in defense of Citrus **Description:** Orange production faces severe losses caused by Greening, Green Mold and Sour Rot, threatening food security and vitamin C availability. Especially in Brazil, leader of orange juice and fruit production, this directly affects livelihoods. To tackle this challenge, we focused on CTX, an antimicrobial peptide from Brazilian Cerrado biodiversity, and engineered three different hosts: E. coli, S. cerevisiae, and A. oryzae to optimize its production through coupling-strategies. To guide CTX application, we developed a mathematical model simulating Greening progression in the phloem and designed Sniffer, a hardware device combining an electronic nose and machine learning for rapid field diagnosis. Performing economic analysis to assess industrial scalability of approaches we demonstrated cost-effectiveness through solid-state fermentation using orange peels residues. Thus, Pepcitrus bridges laboratory innovation and real-world application, incorporating different perspectives from farmers, industry, and society to save oranges. [Wiki](https://2025.igem.wiki/unicamp-brazil) | [Official Page](https://teams.igem.org/5560)https://static.igem.org/peertube/streaming-playlists/hls/f4006156-8f58-4798-b6dc-ab90c35372b3/b7447178-01b0-4d3b-ada8-812f8d433ace-master.m3u8https://video.igem.org/videos/embed/w8ytBdxDBgh41wgxBP3YN890251112025-10-15T08:38:07.953ZYES2025 PresentationsNOhttps://video.igem.org/w/psG729kWVLBKycMcAyBgXQhttps://video.igem.org/lazy-static/thumbnails/aaef0bb6-cc59-41e2-9cb3-6c49cd701084.jpgGeorgiaState-SWJTU: LactoLock: Redefining Dental Defense Through Engineered Nisin (2025) - Team P...**Title:** LactoLock: Redefining Dental Defense Through Engineered Nisin **Description:** Harnessing Synthetic Biology to Combat S. mutans While Preserving Oral Harmony”, “LactoLock: Unlocking a New Era of Smart Oral Health”, “A Lock on Cavities: Engineering Bacteria to Protect Your Smile”, or “From Plaque to Precision: LactoLock’s Synthetic Biology Journey”; Video description: Our iGEM GSU SWJTU team presents LactoLock, a synthetic biology project designed to promote oral health through precision microbial control. This project aims to engineer novel Nisin peptides with targeted antimicrobial activity against Streptococcus mutans, the primary bacterium responsible for dental caries. By selectively inhibiting S. mutans while preserving beneficial oral microbes, LactoLock seeks to maintain balance within the oral microbiome. To ensure biosafety and precise regulation, our team also developed an L-Aspartate–based kill switch that allows controlled survival of engineered Lactobacillus. This system activates only in the presence of L-Asp, preventing unintended persistence outside the target environment. Through these innovations, LactoLock demonstrates how synthetic biology can engineer smarter, safer solutions for advancing oral health and microbial harmony. [Wiki](https://2025.igem.wiki/georgiastate-swjtu) | [Official Page](https://teams.igem.org/5892)https://static.igem.org/peertube/streaming-playlists/hls/bdfc3df6-2a29-4d89-aeca-cc9fbc0072ba/1a49673c-0b8c-4208-ae20-4b9380777995-master.m3u8https://video.igem.org/videos/embed/psG729kWVLBKycMcAyBgXQ9010222025-10-15T08:47:50.058ZYES2025 PresentationsNOhttps://video.igem.org/w/m6EyvY5ERguqRnU4TVim5Xhttps://video.igem.org/lazy-static/thumbnails/557e9b97-d8b5-4bfc-b572-0f21b2d7cd28.jpgTaipei-KCISLK-V3: DNA-Based Biosensors for Cardiovascular miRNA Detection with M... (2025) - Team...**Title:** DNA-Based Biosensors for Cardiovascular miRNA Detection with Machine Learning–Integrated Design Tool **Description:** Cardiovascular diseases (CVDs) remain the leading cause of global mortality, highlighting the need for rapid and sensitive diagnostic technologies. We developed an integrated nucleic acid–based biosensing platform that detects CVD-related microRNAs (miRNAs) with high specificity. The biosensor combines three-way junction (3WJ) probe recognition and a split G-quadruplex (G4) DNAzyme switch, where target-induced linker release reconstitutes the G4 structure. The G4/hemin complex catalyzes the oxidation of TMB, producing measurable electrochemical signals on a portable reader. The system achieved a limit of detection of 480 pM, demonstrating strong sensitivity and specificity. To accelerate probe optimization, machine learning (ML) models trained on experimental datasets (2500 miRNA-specific 3WJ probes and 728 split G4 probes) reached 83% accuracy for the 3WJ model and 80% for the split G4 model. This data-driven biosensor framework bridges biosensing probe design and ML prediction, enabling rapid, customizable, and cost-effective miRNA diagnostics for cardiovascular and other diseases. [Wiki](https://2025.igem.wiki/taipei-kcislk-v3) | [Official Page](https://teams.igem.org/5598)https://static.igem.org/peertube/streaming-playlists/hls/a2c14181-9908-4745-b33f-5ed2f6e19b87/8be44a65-cbb0-417b-9d30-53b46c392749-master.m3u8https://video.igem.org/videos/embed/m6EyvY5ERguqRnU4TVim5X88253352025-10-15T09:08:29.650ZYES2025 PresentationsNOhttps://video.igem.org/w/cjyieC13NdKfWNHLqJXYmohttps://video.igem.org/lazy-static/thumbnails/0edf0edb-f3f1-46ff-a982-40b8ee6cf750.jpgRDFZ-CHINA: RectomeDy FotoZymogen：A Red Light-Programmed Microbial Therapeutic S... (2025) - Team...**Title:** RectomeDy FotoZymogen：A Red Light-Programmed Microbial Therapeutic System for Targeted Colorectal Cancer Treatment **Description:** Colorectal cancer treatment faces challenges such as severe side effects from conventional therapies and a lack of precise, controllable localized treatment methods. To address these issues, we developed RectomeDy FotoZymogen—an engineered bacterial therapeutic system for colorectal cancer based on red light-controlled precise induction. Using the probiotic E. coli Nissle 1917 (EcN) as the chassis, we constructed four core modules: a Targeting Module (INP-HlpA) for tumor-specific anchoring; a Red Light-Induction Module (PadC-MrkH) that enables precise activation of gene expression via 660 nm irradiation; a Therapeutic Module delivering multi-mechanism anticancer molecules such as Coagulase and PD-L1 nanobodies; and a Safety Module ensuring automatic bacterial inactivation post-treatment. RectomeDy FotoZymogen is administered via a suppository with an embedded LED, achieving full-process precision control of "delivery-localization-activation-clearance." This system provides a localized, safe, and highly effective novel treatment strategy for colorectal cancer. [Wiki](https://2025.igem.wiki/rdfz-china) | [Official Page](https://teams.igem.org/5922)https://static.igem.org/peertube/streaming-playlists/hls/5babd123-7469-472a-8ff0-ffb93f694a36/05a2c3af-82a3-4e5e-9dbf-6320b4bc16be-master.m3u8https://video.igem.org/videos/embed/cjyieC13NdKfWNHLqJXYmo8930512025-10-15T09:17:12.257ZYES2025 PresentationsNOhttps://video.igem.org/w/aC7nLbC6Bv5nSRH67fytGehttps://video.igem.org/lazy-static/thumbnails/20e59dcb-e309-4dbf-9c88-cb4b5615c9c0.jpgUBC-Vancouver: meduCA (2025) - Team Presentation [English]**Title:** meduCA **Description:** meduCA is a modular platform that employs bacteria for on-site construction of living building materials in inhospitable environments. We leverage microbially-induced calcium carbonate precipitation (MICP) through the activity of carbonic anhydrases to convert greenhouse gases into carbon-negative bricks via biocementation. By harnessing bacterial surface-display mechanisms, our engineered cells enable stable expression of enzymes for bioremediation and construction, on Earth and beyond! [Wiki](https://2025.igem.wiki/ubc-vancouver) | [Official Page](https://teams.igem.org/5784)https://static.igem.org/peertube/streaming-playlists/hls/4decf3d8-3eb5-46da-9a62-b621c28a2049/5ba1a955-1be8-4be7-9c29-88ba0c2f9780-master.m3u8https://video.igem.org/videos/embed/aC7nLbC6Bv5nSRH67fytGe9010392025-10-15T09:15:37.534ZYES2025 PresentationsNOhttps://video.igem.org/w/8f8FpAK5vuNyCPrLT6Yeh5https://video.igem.org/lazy-static/thumbnails/ef383a58-c942-426f-b3df-0b6bfd5c304d.jpgSCAU-China: Surfing TentaRobot: A Tide-Synchronized Biofilm Platform for Heavy-M... (2025) - Team...**Title:** Surfing TentaRobot: A Tide-Synchronized Biofilm Platform for Heavy-Metal Remediation in Mangrove Ecosystems **Description:** Mangrove ecosystems face escalating heavy metal pollution threats. We developed "Surfing TentaRobot"—a tide-adaptive bioremediation platform using engineered Bacillus subtilis. Core innovations: (1) Self-assembling adsorption: TasA-ShMT3 fusion proteins and ΔsinR-tasA ΔepsA chassis achieve effective heavy metal capture. (2) Biomineralization: Dsp-aCA carbonic anhydrase catalyzes MICP, precipitating CaCO₃/MgCO₃ to permanently sequester adsorbed metals and prevent tidal re-mobilization. (3) Osmotic NOT gate enables tidal rhythm function switching: LLM-assisted workflow identified osmotic-responsive PproHJ promoter; TetR-based NOT gate design enables functional switching between adsorption and mineralization. (4) Cross-scale modeling: Six-layer framework spans molecular docking to field deployment, including competitive assembly models explaining capacity limitations, coupling kinetics quantifying mineralization interference, UTide tidal analysis determining optimal deployment parameters, and biofilm growth models guiding operational strategies. (5) Social responsibility: 215+ surveys and educational activities reaching 600+ students integrated stakeholder feedback. This work demonstrates transforming tidal salinity fluctuations from engineering constraints into regulatory signals for coastal ecosystem remediation. [Wiki](https://2025.igem.wiki/scau-china) | [Official Page](https://teams.igem.org/5976)https://static.igem.org/peertube/streaming-playlists/hls/3aa91db3-3c57-4cfb-ad2e-b600fa4577e8/b53fe417-1154-4a99-9dc1-469d9f5f2c14-master.m3u8https://video.igem.org/videos/embed/8f8FpAK5vuNyCPrLT6Yeh58720502025-10-15T09:10:13.308ZYES2025 PresentationsNOhttps://video.igem.org/w/fJMahhCyYuVL3386dKMGgDhttps://video.igem.org/lazy-static/thumbnails/abd67af5-ad4f-4077-8e52-ad0303683d5e.jpgPatras-Med: Morphe: We are not just treating obesity we are reshaping its future. (2025) - Team P...**Title:** Morphe: We are not just treating obesity we are reshaping its future. **Description:** Welcome to the official presentation of Morphe, the 2025 project by the Patras Medicine iGEM team! In this video, we introduce our pioneering gene therapy approach for obesity - a project that redefines how we understand and treat metabolic disorders. By targeting the root of leptin resistance in the hypothalamus, Morphe aims to restore the body’s natural ability to regulate energy balance and appetite. Developed through months of scientific innovation, collaboration and resilience, Morphe represents more than a therapeutic design - it’s a vision of transformation in both biology and mindset. Our multidisciplinary team combines molecular biology, bioengineering and neuroscience to create a lasting impact on the fight against obesity. This is Morphe - where science meets transformation. [Wiki](https://2025.igem.wiki/patras-med) | [Official Page](https://teams.igem.org/5998)https://static.igem.org/peertube/streaming-playlists/hls/775902ab-5c3c-4655-8c09-02262a677623/73fb60c2-ce31-4c7a-8143-6f09ef2a6c18-master.m3u8https://video.igem.org/videos/embed/fJMahhCyYuVL3386dKMGgD88801902025-10-15T10:20:29.803ZYES2025 PresentationsNOhttps://video.igem.org/w/jEBscJ1QDwvj5YMYeSdwyFhttps://video.igem.org/lazy-static/thumbnails/a7283a68-846e-41a7-b32c-8025cbd84049.jpgHS-KY: Insights into Molecular Interactions─Predicting and Validating PFOA Bindi... (2025) - Team...**Title:** Insights into Molecular Interactions─Predicting and Validating PFOA Binding to Human Proteins **Description:** PFAS (per- and polyfluoroalkyl substances) are chemicals used in the manufacturing of many products. They have been called “forever chemicals” for their inability to break down in our environment and have accumulated to an extent that at least 97% of Americans have traceable amounts in their blood (NHANES 2015). However, while the full spectrum of their effects is not entirely understood, they have been implicated in several cancers and liver conditions. Current detection methods like mass spectrometry and liquid or gas chromatography are expensive and inaccessible to the general public. Our project aims to develop a cost-effective protein-based detection system for PFAS. Using a reverse-screening approach across multiple protein-ligand databases, we identified candidate human proteins predicted to bind perfluorooctanoic acid (PFOA), a representative PFAS. Among these, we purified and characterized a key DNA repair protein is significantly destabilized in the presence of PFOA based on results from differential scanning fluorimetry (DSF). [Wiki](https://2025.igem.wiki/hs-ky) | [Official Page](https://teams.igem.org/5782)https://static.igem.org/peertube/streaming-playlists/hls/97289b68-8972-40b0-9369-27b99115583f/26e15abd-4315-48fc-a128-cc1eb0e881c9-master.m3u8https://video.igem.org/videos/embed/jEBscJ1QDwvj5YMYeSdwyF9020472025-10-15T09:47:35.961ZYES2025 PresentationsNOhttps://video.igem.org/w/qSySUXXdsi71Viv4XjuzqUhttps://video.igem.org/lazy-static/thumbnails/be25b76b-6d74-47f5-8625-682eceb12a8c.jpgNTU-Singapore: Nanyang Technological University- CASPER (2025) - Team Presentation [English]**Title:** Nanyang Technological University- CASPER **Description:** This presentation video introduces our team and highlights the premise and findings of our project. We discuss our research objectives, design approaches, and the impact we hope to achieve through our work. Through this video, we aim to convey our passion for innovation and collaboration as we explore and deepen our understanding of RNA editing. [Wiki](https://2025.igem.wiki/ntu-singapore) | [Official Page](https://teams.igem.org/5906)https://static.igem.org/peertube/streaming-playlists/hls/c96ac72b-cf29-4b2a-b158-82275a4e3a68/d6b18f23-c117-42c5-999d-996d390cfce1-master.m3u8https://video.igem.org/videos/embed/qSySUXXdsi71Viv4XjuzqU9020252025-10-15T09:54:52.485ZYES2025 PresentationsNOhttps://video.igem.org/w/jEhPgvJWdwHzXwodsoTcv9https://video.igem.org/lazy-static/thumbnails/8ae8b3be-33d4-4736-a7ad-377dcbed8080.jpgSMS-Shenzhen: AntiBACjacket (2025) - Team Presentation [English]**Title:** AntiBACjacket **Description:** Ever frustrated by food spoiling too quickly, even in the fridge? Or concerned about plastic pollution from disposable wraps? Ever frustrated by food spoiling too quickly, even in the fridge? Or concerned about plastic pollution from disposable wraps? Traditional plastic cling film creates mountains of non-degradable waste each year while failing to protect your food from bacterial growth. As a solution to this problem, SMS-iGEM presents a biodegradable, antibacterial cling film. Guided by the ingenious Granny Bacillus Subtilis, we engineered the bacterium Bacillus subtilis to produce ε-poly-L-lysine. Like skilled weavers, we combine ε-poly-L-lysine with chitosan and sodium alginate to construct a multi-layered, high-performance new cling film. This novel material not only significantly extends food freshness, but also returns harmlessly to the Earth after use. Join SMS-iGEM as we weave a greener, fresher future for food preservation! [Wiki](https://2025.igem.wiki/sms-shenzhen) | [Official Page](https://teams.igem.org/5606)https://static.igem.org/peertube/streaming-playlists/hls/971d1f29-5ab1-46d6-9dd0-0246545eb0be/0fe7e8e3-4983-4f84-b66d-743f7a6e6e59-master.m3u8https://video.igem.org/videos/embed/jEhPgvJWdwHzXwodsoTcv98740262025-10-15T10:00:18.900ZYES2025 PresentationsNOhttps://video.igem.org/w/1NSZ678UTTaCtAdyBgSr79https://video.igem.org/lazy-static/thumbnails/3e27ecb0-cb84-4471-bbc4-5f2427c31cc2.jpgRochester: PHAntom: PHA Novel Tools for Off-world Manufacturing (2025) - Team Presentation [English]**Title:** PHAntom: PHA Novel Tools for Off-world Manufacturing **Description:** Since the Mariner 4 flyby, Mars has inspired interplanetary exploration, but high payload costs limit human settlement. Our team proposes PHAntom, a synthetic biology system using engineered E. coli to convert Martian CO₂ into bioplastics and metabolites. Our two-strain E. coli system converts CO₂ into PHBV via an acetate intermediate. Strain 1 autotrophically fixes CO₂ and secretes acetate using the pta–ackA pathway. Strain 2, aided by tdcB/tdcE for propionyl-CoA supply and tesB/yciA to balance 3HB/3HV monomers, converts acetate into PHBV. A bicarbonate-responsive cAMP–CRP mechanism enhances transcription under high HCO₃⁻, while CRISPRi knockdown of gltA diverts acetyl-CoA from the TCA cycle, optimizing acetate production and PHBV yield. Team PHAntom has built a clinostat to simulate non-Earth gravity conditions and an extrusion system to convert PHBV granules into printable filaments. PHAntom enables sustainable off-world biomaterial production through integrated carbon capture, adaptive metabolism, and on-site manufacturing [Wiki](https://2025.igem.wiki/rochester) | [Official Page](https://teams.igem.org/5571)https://static.igem.org/peertube/streaming-playlists/hls/068ba233-64b5-4661-9685-03f47190ac88/c31284d0-b169-4bc6-885c-9861b0c2a2cc-master.m3u8https://video.igem.org/videos/embed/1NSZ678UTTaCtAdyBgSr798160482025-10-15T10:06:15.641ZYES2025 PresentationsNOhttps://video.igem.org/w/7Z1L45dGvV1gGQ5WgM29cphttps://video.igem.org/lazy-static/thumbnails/df6dbe2a-9f46-467c-be87-fbd1f2cef3d5.jpgXJTLU-CHINA: O! Super Carpet: Using Biofilm to Capture Ulva Spores (2025) - Team Presentation [En...**Title:** O! Super Carpet: Using Biofilm to Capture Ulva Spores **Description:** Our team is committed to solving the annual outbreak of Ulva Prolifera in Qingdao. Spore propagation is a common way for Ulva to reproduce. Due to its small size and the characteristic of being easy to spread rapidly in water, the outbreak of Ulva is usually uncontrollable. The current common governance method is only physical salvage, which is not only extremely inefficient, costly and labor-intensive, but also unable to capture tiny propagules such as spores, which will trigger a new round of outbreak of Ulva. In order to solve this problem more effectively and sustainably, our project will focus on addressing one of the roots of the repeated outbreak of Ulva: spores. We aim to design a strain of Escherichia coli to enhance the viscosity of the biofilm and use arginine short peptides to assist in spore sedimentation, so as to curb the spread of green tides from the source. To ensure biosafety, we introduce a light-controlled suicide system and develop a special spore filter based on 3D printing, optimize the fluid channel and carrier structure, achieve efficient capture of spores, and create a green and safe solution. [Wiki](https://2025.igem.wiki/xjtlu-china) | [Official Page](https://teams.igem.org/5578)https://static.igem.org/peertube/streaming-playlists/hls/388cb1e6-e57d-4e8b-9d65-8a0215dffd8d/66cae9d9-4540-47df-967c-491e4220f990-master.m3u8https://video.igem.org/videos/embed/7Z1L45dGvV1gGQ5WgM29cp8970912025-10-15T10:43:51.381ZYES2025 PresentationsNOhttps://video.igem.org/w/bioangVS9WEE88ypEmfFWJhttps://video.igem.org/lazy-static/thumbnails/f147a43f-81e7-419a-a184-502d204d7c12.jpgNJTech-China: One-Cell Monodrama---Synchronized synthesis of cadaverine-succinat... (2025) - Team...**Title:** One-Cell Monodrama---Synchronized synthesis of cadaverine-succinate for bio-based polyamide 54 in one E. coli cell **Description:** Polyamide 54 (PA54)—synthesized from bio-based cadaverine and succinate—is an essential polymer with a wide range of market demand. Their conventional biosynthesis relies on two separate bacterial strains, resulting in complex processes, high consumption of acids and bases, and substantial waste salt generation. To overcome these limitations, we designed an efficient and eco-friendly synthesis route based on a lysine-producing strain E. coli NT1003. We planed to engineer a single bacterial cell factory capable of synchronously producing cadaverine and succinate to acid-base neutralization and in-situ fixation of CO2, reducing neutralizing agents and waste salt. Specifically, we constructed two regulatory systems based on different genetic switchs to control lysine decarboxylase (CadA). We further engineered CadA under the guidance of the enzyme engineering model analysis for efficient conversion of lysine into cadaverine. Additionally, the cofactor regulation was applied to enhance succinate synthesis combining the analysis of metabolic models. By integrating the genetic switch, CadA, and cofactor modules, we successfully built an intelligent cell factory that simultaneously produces cadaverine and succinate from glucose. In connection with the project's progress, we have also carried out a series of human practices activities. Our project provides a streamlined and sustainable approach for the green production of bio-PA, enables the public to become familiar with green biobased materials and promotes people's green lifestyles. [Wiki](https://2025.igem.wiki/njtech-china) | [Official Page](https://teams.igem.org/5881)https://static.igem.org/peertube/streaming-playlists/hls/5368b02d-b522-4fbd-ac9a-b815ea025ad2/d8b62dbe-29d5-4ba5-8294-3d64abc76115-master.m3u8https://video.igem.org/videos/embed/bioangVS9WEE88ypEmfFWJ8870242025-10-15T10:36:19.778ZYES2025 PresentationsNOhttps://video.igem.org/w/5zr4wiKnfeQnmpUbx31mEnhttps://video.igem.org/lazy-static/thumbnails/1c6a9cff-0dc8-40e0-b801-1cdbf3354fc0.jpgSCUT-China-L: GRACE: Ginsenoside-Rh1 from Red Algae to Cosmetic Essence (2025) - Team Presentatio...**Title:** GRACE: Ginsenoside-Rh1 from Red Algae to Cosmetic Essence **Description:** We have developed an innovative and eco-friendly synthetic biology approach for producing the rare component ginsenoside Rh1. By introducing the metabolic pathway of red algae into yeast for genetic engineering modification, we have achieved the efficient synthesis of Rh1, which avoids the environmental hazards caused by traditional plant extraction or chemical synthesis methods. Meanwhile, we employed flux balance analysis, molecular docking, biokinetic modeling, and sustainable development analysis to assist in evaluating the project's feasibility, optimizing the experimental design. This solution makes full use of abundant marine resources, ensuring that skincare products such as serums possess both high quality and affordable prices. Our breakthrough paves the way for more environmentally friendly cosmetic research and development, and unlocks the application potential of marine biological resources. [Wiki](https://2025.igem.wiki/scut-china-l) | [Official Page](https://teams.igem.org/5843)https://static.igem.org/peertube/streaming-playlists/hls/250f8b14-1963-4927-a2d6-990c31824b81/3ec7504a-e4c7-4f6a-912c-7a0d4ea85321-master.m3u8https://video.igem.org/videos/embed/5zr4wiKnfeQnmpUbx31mEn8820272025-10-15T10:45:06.345ZYES2025 PresentationsNOhttps://video.igem.org/w/iRbNfSZYSsReVyNy2s4ceqhttps://video.igem.org/lazy-static/thumbnails/70a7f928-43bd-47ed-b2b3-eacf899968ea.jpgSquirrel-Beijing: ReGenstitch: Bio-Sutures with Strength, Antimicrobial & Anti-I... (2025) - Team...**Title:** ReGenstitch: Bio-Sutures with Strength, Antimicrobial & Anti-Inflammatory Synergy via Synthetic Biology. **Description:** SynSuture addresses the limitations of traditional sutures—poor biocompatibility, infection risks, and non-degradability—by integrating three functional modules via synthetic biology. We use engineered E. coli to efficiently produce: Bacterial Cellulose (BC) for strength and biocompatibility; Chitosan/COS (from shrimp waste) for antimicrobial and wound-healing effects; and Curcumin for targeted anti-inflammatory regulation. This creates a multifunctional suture that synergizes structural support, infection control, and inflammation modulation, all while promoting sustainable biomanufacturing. [Wiki](https://2025.igem.wiki/squirrel-beijing) | [Official Page](https://teams.igem.org/5878)https://static.igem.org/peertube/streaming-playlists/hls/908974c7-07ea-4ae0-a08d-0cb636f0744e/3d59b4b8-c7b9-456a-b2e5-6e61b4e95022-master.m3u8https://video.igem.org/videos/embed/iRbNfSZYSsReVyNy2s4ceq7540172025-10-15T11:10:11.596ZYES2025 PresentationsNOhttps://video.igem.org/w/3SZyHUEZbiYvS2PAuYX1Ahhttps://video.igem.org/lazy-static/thumbnails/16127eb3-e288-436b-b7da-bc68e4273d7d.jpgPennState: HELIOS: Heparosan Engineered for Laboratory Innovation and Optimized ... (2025) - Team...**Title:** HELIOS: Heparosan Engineered for Laboratory Innovation and Optimized Synthesis **Description:** HELIOS represents the next chapter in biosynthetic heparin production. This year, at Penn State, we aim to optimize heparosan production in E. coli BL21 through the development of a one-plasmid expression system for all necessary enzymes. Plasmids will be optimized for heparosan production through the construction of a large RBS library and finding the optimal heparosan-producing plasmid. We hope our project will contribute to increasing the efficiency and reducing the costs of biosynthetic heparosan, allowing for downstream processing into crucial pharmaceuticals such as heparin. [Wiki](https://2025.igem.wiki/pennstate) | [Official Page](https://teams.igem.org/5658)https://static.igem.org/peertube/streaming-playlists/hls/1750f0e5-df28-4a6e-a155-5187b1b23a5c/80684cd5-d62f-46b8-a53c-35ab79bb66e0-master.m3u8https://video.igem.org/videos/embed/3SZyHUEZbiYvS2PAuYX1Ah8630132025-10-15T10:58:12.861ZYES2025 PresentationsNOhttps://video.igem.org/w/5JD2XPG3yGWfJozFb6AD27https://video.igem.org/lazy-static/thumbnails/0dd4976d-8651-444f-a4ed-663d8936eba3.jpgULethbridge: Hyaluronext (2025) - Team Presentation [English]**Title:** Hyaluronext **Description:** Hyaluronic acid is a key biomolecule used across cosmetics, medicine, and biotechnology. It helps moisturize skin, lubricate joints, and support tissue repair. What makes it so valuable is its incredible ability to hold large amounts of water — a property that underlies its use in everything from skincare products to medical implants. But while hyaluronic acid is in high demand, current production methods are far from ideal. They’re expensive, ethically complicated, and often unsustainable. [Wiki](https://2025.igem.wiki/ulethbridge) | [Official Page](https://teams.igem.org/5563)https://static.igem.org/peertube/streaming-playlists/hls/26589dab-17c9-454c-89ee-4cd1eab7a994/6cc3a74f-cf98-435e-9a52-c7b3070978a3-master.m3u8https://video.igem.org/videos/embed/5JD2XPG3yGWfJozFb6AD278590212025-10-15T11:11:33.465ZYES2025 PresentationsNOhttps://video.igem.org/w/sQtfjaGdz5cy9Bg7dEbggAhttps://video.igem.org/lazy-static/thumbnails/72c1dbb6-be09-4f5a-9656-6b147478299a.jpgOUC-China: AUREOBASIDIUM METHANOL-INTO-GLUCOSE OUTPUT (2025) - Team Presentation [English]**Title:** AUREOBASIDIUM METHANOL-INTO-GLUCOSE OUTPUT **Description:** Our project aims to enhance the bioconversion of methanol into pullulan, a biodegradable polysaccharide, using Aureobasidium melanogenum. By constructing an optimized CRISPR-Cas9-Am gene editing system, we achieved efficient pathway modification to improve methanol utilization. To ensure real-time control during fermentation, we designed a non-invasive methanol monitoring and automatic feeding device featuring a catalytic gas sensor and STM32-based fuzzy control—accurate, eco-friendly, and cost-effective. In modeling, we developed SL-AttnESM, a lightweight subcellular localization predictor integrating sequence and structure information. Combined with our AI agent LocAgent, it enables rapid prediction, primer design, and rational enzyme localization optimization. Together, these components form an intelligent DBTL cycle linking genetic design, process control, and computational prediction. Our system transforms Aureobasidium into a sustainable biomanufacturing chassis—converting methanol into high-value pullulan and promoting a greener carbon cycle. [Wiki](https://2025.igem.wiki/ouc-china) | [Official Page](https://teams.igem.org/5570)https://static.igem.org/peertube/streaming-playlists/hls/d95218f8-aaa5-42b6-814b-8851c9e29014/dd0b1ed4-9fb5-4ccb-875d-3668ede31c1e-master.m3u8https://video.igem.org/videos/embed/sQtfjaGdz5cy9Bg7dEbggA9000142025-10-15T11:38:39.478ZYES2025 PresentationsNOhttps://video.igem.org/w/sgmeJ5DGs1qVdfpFUfw5LZhttps://video.igem.org/lazy-static/thumbnails/d5e00b0b-803b-4d90-8871-7ca62761f8f7.jpgWIST: RiceGuard—A biosensor that detects inorganic arsenic in rice using cell-fr... (2025) - Team...**Title:** RiceGuard—A biosensor that detects inorganic arsenic in rice using cell-free protein synthesis and dual plasmids. **Description:** Rice is a staple food for billions of people worldwide, including in Taiwan, where it is consumed daily. However, heavy metal contamination—such as arsenic, cadmium, or lead—can accumulate in rice during cultivation due to polluted soil and irrigation water. Long-term exposure to these contaminants poses serious health risks, including kidney damage, developmental issues, and cancer. Despite these dangers, most households lack a simple, affordable, and rapid method to test their rice before consumption. Our iGEM project aims to address this urgent food safety challenge by creating a portable, user-friendly heavy metal detection system specifically designed for home use. [Wiki](https://2025.igem.wiki/wist) | [Official Page](https://teams.igem.org/5779)https://static.igem.org/peertube/streaming-playlists/hls/d4b23ba5-0087-4a9b-a28d-69467cc50a11/dd7b99ab-5623-42bb-8b80-48dbaef8f8e0-master.m3u8https://video.igem.org/videos/embed/sgmeJ5DGs1qVdfpFUfw5LZ4160152025-10-15T11:25:40.425ZYES2025 PresentationsNOhttps://video.igem.org/w/psN8eTfeiDBnhzV8DjsJdZhttps://video.igem.org/lazy-static/thumbnails/01938aa7-505a-4405-b2c6-828e56e351f0.jpgCSW-UD: Cleaning Up Oil Spills With the Help of Alcanivorax borkumensis (2025) - Team Presentatio...**Title:** Cleaning Up Oil Spills With the Help of Alcanivorax borkumensis **Description:** Marine oil spills pose recurring threats to ocean ecosystems. Alcanivorax borkumensis, a halophilic, hydrocarbonoclastic bacterium evolved to thrive around oil-contaminated environments, is promising for bioremediation. Its concentration increases naturally after oil spills, efficiently degrading alkanes, utilizing specialized enzymes including alkane monooxygenases, cytochrome P450s, and biosurfactant-producing pathways. We first explored A. borkumensis's biofilm formation and alkane oxygenation, identifying its overall better performance over champion isolates. Then, tested both conjugation and transformation strategies. Second, through a proteomic study, we identified secreted proteins in alkane degradation's first steps, testing their degradation abilities through a biochemical NPD-hydrazine assay. We deem the flavin-binding monooxygenase AlmA and cytochrome p450 promising in alkane degradation. Third, through a bioinformatics approach, we studied the properties of the enzymes that increase alkane-degrading abilities. In the future, we plan to study biocontainment issues and learn how to safely implement our genetically modified bacteria in wastewater treatments. [Wiki](https://2025.igem.wiki/csw-ud) | [Official Page](https://teams.igem.org/5978)https://static.igem.org/peertube/streaming-playlists/hls/bdfff3df-6e6f-4cb0-bba7-84aa77585369/7e078b6b-c74c-4b72-912c-df5da187b5c2-master.m3u8https://video.igem.org/videos/embed/psN8eTfeiDBnhzV8DjsJdZ5640262025-10-15T11:20:47.917ZYES2025 PresentationsNOhttps://video.igem.org/w/roVwZDeRNYcHEV7PE1XjkGhttps://video.igem.org/lazy-static/thumbnails/fe7ccd8d-57c2-4918-9631-d3cd0c306b44.jpgBaltimore-BioCrew: Triagnostic: Spotting Remission Is Our Mission (2025) - Team Presentation [Eng...**Title:** Triagnostic: Spotting Remission Is Our Mission **Description:** In recent years, breast cancer has resurged in our communities, primarily in younger women under the age of 30. It is estimated that 10-15% of all breast cancer cases are triple negative breast cancer, or TNBC. TNBC is a rare type of aggressive breast cancer with an absence of progesterone receptors, HER2 proteins, and estrogen receptors. Approximately 40% of former TNBC patients face recurrence of TNBC after proper treatment. In order to prevent TNBC resurgence and former TNBC patients from experiencing treatment again, our team works on creating a solution that detects early TNBC resurgence in order to cure early TNBC resurgence that doesn’t involve chemotherapy while being reusable, efficient, and protecting the patient’s privacy. Our project’s goal is to create a preliminary detection home test that provides reusable and effective TNBC resurgence detection in order to alert patients about recurrence of the dangerous disease before additional chemotherapy treatment is required. [Wiki](https://2025.igem.wiki/baltimore-biocrew) | [Official Page](https://teams.igem.org/5816)https://static.igem.org/peertube/streaming-playlists/hls/cda7d238-497a-48aa-bfc9-06d56e891716/e0b53429-dded-43a5-b0cf-d3f41ed83863-master.m3u8https://video.igem.org/videos/embed/roVwZDeRNYcHEV7PE1XjkG9010462025-10-15T11:39:35.865ZYES2025 PresentationsNOhttps://video.igem.org/w/tYQ6kRj6JGGEcGY6hHYDkShttps://video.igem.org/lazy-static/thumbnails/6f2e811c-425a-4de5-8b17-585718113558.jpgSquirrel-SouthEast: Strawberry Spoilage Full-Process Prevention and Real-Time Mo... (2025) - Team...**Title:** Strawberry Spoilage Full-Process Prevention and Real-Time Monitoring System **Description:** This project addresses the high spoilage rate of strawberries during post-harvest transportation, where current preservation methods are costly or have limited effectiveness, by proposing an integrated “prevention + real-time monitoring” solution. After harvest, strawberries are sprayed with chitinase and endo-β-1,3-glucanase to degrade fungal cell walls and inhibit infection. During transportation, a VOCs-based whole-cell biosensor constructed from Escherichia coli BL21 (BE3) detects spoilage-related volatile compounds and triggers a fluorescent warning, enabling logistics operators to adjust conditions or remove damaged fruit in time to prevent further spread. This approach leaves no chemical residues, has low production costs, can be integrated with IoT systems, and is suitable for large-scale application—significantly reducing spoilage rates and transport losses, improving freshness, and enhancing both economic returns and food safety. [Wiki](https://2025.igem.wiki/squirrel-southeast) | [Official Page](https://teams.igem.org/5879)https://static.igem.org/peertube/streaming-playlists/hls/e2960862-92a6-465e-896b-f8393060be44/67cc9a99-16fe-462c-aec4-6292f6d60b22-master.m3u8https://video.igem.org/videos/embed/tYQ6kRj6JGGEcGY6hHYDkS7870262025-10-15T11:32:41.171ZYES2025 PresentationsNOhttps://video.igem.org/w/vvJqjP76bnEFjpZpX4FioVhttps://video.igem.org/lazy-static/thumbnails/45dd6569-b5ae-42b1-a22a-d2d68c2008a5.jpgDelNorte-SD: Dual Plasmid Biosensor + Response System to Fight Inflammation (2025) - Team Present...**Title:** Dual Plasmid Biosensor + Response System to Fight Inflammation **Description:** The DelNorte-SD iGEM team presents our dual-plasmid biosensor and response system engineered to detect nitric oxide and hydrogen peroxide as inflammation markers and trigger the production of an anti-inflammatory output, indole-3-acetic-acid. This video summarizes our design, build, test, and modeling process, and highlights our approach to engineering a safe and effective response to inflammation. [Wiki](https://2025.igem.wiki/delnorte-sd) | [Official Page](https://teams.igem.org/6013)https://static.igem.org/peertube/streaming-playlists/hls/eeffbb7a-f16c-4aa6-b308-622b9397ba7d/c726d062-c94a-44aa-9e0f-81742ddaff95-master.m3u8https://video.igem.org/videos/embed/vvJqjP76bnEFjpZpX4FioV8790382025-10-15T11:42:50.636ZYES2025 PresentationsNOhttps://video.igem.org/w/79RM6Vou7szx9wBWBRAykEhttps://video.igem.org/lazy-static/thumbnails/2bcb014d-f829-4b3a-bf89-6513027f38f5.jpgHNU-China: Pullomunch-An E. coli System for Combating Phenanthrene and Naphthale... (2025) - Team...**Title:** Pullomunch-An E. coli System for Combating Phenanthrene and Naphthalene Pollution **Description:** PAHs exert persistent toxic effects on both humans and animals. Taking two relatively simple PAHs—naphthalene and phenanthrene—as examples, we aim to engineer Escherichia coli with the nah, phn, and rhl gene clusters from Pseudomonas and other species to establish a more efficient pathway for their degradation. [Wiki](https://2025.igem.wiki/hnu-china) | [Official Page](https://teams.igem.org/5883)https://static.igem.org/peertube/streaming-playlists/hls/31d3756b-5ca3-449a-945b-355f2a0dca34/bab9a9b1-592c-432a-83fb-e6e98b5009b1-master.m3u8https://video.igem.org/videos/embed/79RM6Vou7szx9wBWBRAykE8510122025-10-15T11:47:30.994ZYES2025 PresentationsNOhttps://video.igem.org/w/1aW6THXQdLD4dy1yDbLNcKhttps://video.igem.org/lazy-static/thumbnails/6d24dbc7-9a92-4c9e-9001-07a3fd1d43fa.jpgSPC: Microplastics, PET, and our solution (2025) - Team Presentation [English]**Title:** Microplastics, PET, and our solution **Description:** Microplastics are becoming a more serious problem day by day, and we at SPC are coming up with a solution. [Wiki](https://2025.igem.wiki/spc) | [Official Page](https://teams.igem.org/5593)https://static.igem.org/peertube/streaming-playlists/hls/01630903-d710-4109-bbe5-e4ddb81ff4c1/0c3badc5-bc67-49a9-9456-ac5ed6da22ce-master.m3u8https://video.igem.org/videos/embed/1aW6THXQdLD4dy1yDbLNcK9020212025-10-15T11:55:38.324ZYES2025 PresentationsNOhttps://video.igem.org/w/9PKyMEAGZkn3eCy6iekzHkhttps://video.igem.org/lazy-static/thumbnails/6f804221-2b46-41bf-a8a8-b11f631aa2a6.jpgTec-Chihuahua: PHASEOS: Protecting the field, harvesting the future (2025) - Team Presentation [E...**Title:** PHASEOS: Protecting the field, harvesting the future **Description:** From a breakfast table to the lab, Phasea tells the story of how science, culture, and collaboration unite to protect one of humanity’s most essential crops, the common bean. Through molecular design, mathematical modeling, human practices and entrepreneurship, this video follows the journey of Phasea built not just to fight anthracnose, but to prevent it, turning prevention into empowerment, science into sustainability, and technology into empathy. [Wiki](https://2025.igem.wiki/tec-chihuahua) | [Official Page](https://teams.igem.org/5718)https://static.igem.org/peertube/streaming-playlists/hls/4773ea1f-3f0a-4c8a-b18d-b6191d29eaa9/ec847d79-81b1-47fc-9e0d-0237721e756c-master.m3u8https://video.igem.org/videos/embed/9PKyMEAGZkn3eCy6iekzHk7890472025-10-15T12:39:10.724ZYES2025 PresentationsNOhttps://video.igem.org/w/vGMsM128EPqr5gcQjz5YmAhttps://video.igem.org/lazy-static/thumbnails/d1a10a17-98cd-47ae-a388-9e0aec3ffb64.jpgSCU-China: TasAnchor:A Whole-Cell Immobilization Platform (2025) - Team Presentation [English]**Title:** TasAnchor:A Whole-Cell Immobilization Platform **Description:** Although engineered bacteria hold great potential for wastewater remediation, their practical application is constrained by operational challenges such as easy washout, poor stability, and low cell density. To overcome these limitations, we developed TasAnchor, a whole-cell immobilization platform built on the chassis of Bacillus subtilis. By repurposing the endogenous biofilm protein TasA as a genetically engineered molecular anchor, TasAnchor dramatically enhances cellular adhesion and biofilm formation capacity of the engineered host on surfaces such as polystyrene filters.We further engineered TasAnchor into a multifunctional cadmium-management platform capable of the simultaneous monitoring, adsorption, and recovery of Cd²⁺ ions in real-time. For biocontainment, a quorum sensing-activated suicide circuit was integrated to trigger cell death upon accidental release. Central to its design is modularity, allowing for the exchange of adhesive proteins to facilitate flexible adaptation to diverse remediation scenarios, thereby underscoring the platform's versatility and broad application potential. [Wiki](https://2025.igem.wiki/scu-china) | [Official Page](https://teams.igem.org/5810)https://static.igem.org/peertube/streaming-playlists/hls/f08ac9e6-d965-467a-b3e5-6da9bafb6bfa/eb847c1d-5e2b-4f38-ad84-a556fdc2b9e1-master.m3u8https://video.igem.org/videos/embed/vGMsM128EPqr5gcQjz5YmA8890862025-10-15T12:52:51.325ZYES2025 PresentationsNOhttps://video.igem.org/w/6nzvb2HtzBY7M8bMPeRNPRhttps://video.igem.org/lazy-static/thumbnails/45fa4902-adc3-4b92-a642-257ab46ce00a.jpgBJWZ-China: Reborn:PFAS Assassin——The PFAS Simple Detection And Degradation Syst... (2025) - Team...**Title:** Reborn:PFAS Assassin——The PFAS Simple Detection And Degradation System Based On Engineered E.coli **Description:** This video presents key stages throughout our team’s project implementation process. Our project endeavors to develop a simple and readily operable integrated "detection-degradation" system for PFAS. Engineered Escherichia coli will be employed to enable visual detection of PFAS and its preliminary degradation. [Wiki](https://2025.igem.wiki/bjwz-china) | [Official Page](https://teams.igem.org/5838)https://static.igem.org/peertube/streaming-playlists/hls/2b80f59c-470a-4883-8fc7-2661bdbace67/97787736-e2e0-47fe-80cd-fc9b488b5e88-master.m3u8https://video.igem.org/videos/embed/6nzvb2HtzBY7M8bMPeRNPR8810182025-10-15T13:02:38.845ZYES2025 PresentationsNOhttps://video.igem.org/w/faPC8M7jV8k7eVjxtdbzo8https://video.igem.org/lazy-static/thumbnails/3a76619f-e613-4e63-9e8e-0aadbda11ee0.jpgCity-of-London-UK: CryptoKnight - Shining A LAMP On Neglected Tropical Diseases (2025) - Team Pre...**Title:** CryptoKnight - Shining A LAMP On Neglected Tropical Diseases **Description:** One of the most neglected tropical diseases, Cryptosporidiosis kills an estimated 200,000 children every year and 10 million disability adjusted life years lost annually. It is caused by a parasite, and spreads through infected water samples globally. Current methods, such as qPCR, are expensive, unreliable and affected by inhibitors in faecal samples, with the most common methods having a sensitivity of around 40-60%. Using Loop Mediated Isothermal Amplification, we designed a novel point of care diagnostic for the 18s rRNA of Cryptosporidium, designing an efficient primer set, and four new fusion Bst polymerases, with subdomains designed to increase reverse transcriptase activity, thermostability and inhibitor tolerance. Targeting 18s rRNA allows the test to detect 1 oocyst/gram of faecal sample (compared to qPCR’s 300/gram). Results are shown colourimetrically for easy use. With our model and education work, we made the test even more accessible. It's time to shine a LAMP On Cryptosporidiosis! [Wiki](https://2025.igem.wiki/city-of-london-uk) | [Official Page](https://teams.igem.org/5602)https://static.igem.org/peertube/streaming-playlists/hls/72befbe0-0be9-44d5-878c-5d839ed24697/410ca18a-6be4-43b2-8f65-6041ec4d8e51-master.m3u8https://video.igem.org/videos/embed/faPC8M7jV8k7eVjxtdbzo88970372025-10-15T12:48:29.666ZYES2025 PresentationsNOhttps://video.igem.org/w/58H4rYpumew2gtV5Myae1Dhttps://video.igem.org/lazy-static/thumbnails/07faa766-b536-4e6f-8e89-906f5adbb0e6.jpgGXU-China: Antibacterial Blue Light Therapy for Gastric Cancer (2025) - Team Presentation [English]**Title:** Antibacterial Blue Light Therapy for Gastric Cancer **Description:** To combat Helicobacter pylori antibiotic resistance and gastric cancer, we developed an engineered living therapeutic platform. It uses an attenuated H. pylori chassis with natural gastric targeting, integrating luminescence, quorum sensing, and bio-safety modules. Surface-loaded with Chlorin e6 (Ce6) and a lux operon, the bacteria are activated by near-infrared light to generate reactive oxygen species and blue-light phototoxicity, inducing tumor cell apoptosis. A quorum-sensing circuit triggers light emission at a high population density, activating endogenous porphyrins in wild-type H. pylori for a “bystander killing” effect, which also self-regulates the engineered population. For bio-safety, a hypoxia-responsive suicide switch ensures bacterial survival in the stomach but causes programmed death in oxygenated environments. Encapsulated in an oral liposomal delivery system, this platform offers a novel paradigm for overcoming antibiotic resistance and achieving precision gastric cancer therapy. [Wiki](https://2025.igem.wiki/gxu-china) | [Official Page](https://teams.igem.org/5845)https://static.igem.org/peertube/streaming-playlists/hls/21781097-8365-4dd5-b28a-fede0934b001/20538dec-3133-4208-91e8-f1d8c14c1d78-master.m3u8https://video.igem.org/videos/embed/58H4rYpumew2gtV5Myae1D7370112025-10-15T13:13:41.492ZYES2025 PresentationsNOhttps://video.igem.org/w/mkPMFkzzfGYcvgQPAESCfohttps://video.igem.org/lazy-static/thumbnails/f76aca51-c717-435f-bafd-33133c1d83cc.jpgNCState: Detection and Bioremediation of Polychlorinated Biphenyls in Soil (2025) - Team Presenta...**Title:** Detection and Bioremediation of Polychlorinated Biphenyls in Soil **Description:** The goal of our project is to develop a synthetic biology-based system for the detection and bioremediation of polychlorinated biphenyls (PCBs)—persistent organic pollutants that pose environmental and health risks. We are engineering Pseudomona putida to express genes from the bph (biphenyl degradation) pathway, enabling them to enzymatically break down PCB compounds into less toxic intermediates. To complement this, we are designing a biosensor circuit that uses synthetic aptamers—short nucleic acid sequences that specifically bind PCBs—to initiate a response via a CRISPR-Cas12a-based system. This dual-function system will allow our engineered organisms to both sense and respond to PCB contamination in a controlled, efficient, and field-deployable manner. [Wiki](https://2025.igem.wiki/ncstate) | [Official Page](https://teams.igem.org/5709)https://static.igem.org/peertube/streaming-playlists/hls/a4bb5ade-7cf2-4482-a805-824b78a39282/75bb8ad4-7581-4ebf-8339-64b5a10a03da-master.m3u8https://video.igem.org/videos/embed/mkPMFkzzfGYcvgQPAESCfo8350162025-10-15T13:46:57.654ZYES2025 PresentationsNOhttps://video.igem.org/w/cnugp1QTu2PKYaCsAyJ2Ynhttps://video.igem.org/lazy-static/thumbnails/d2e72e5c-ede8-4845-a24b-e727603f4f1b.jpgDBHS-CA: ILXIR: IL-10 In Response (2025) - Team Presentation [English]**Title:** ILXIR: IL-10 In Response **Description:** Inflammatory Bowel Disease (IBD) is a chronic condition characterized by inflammation in the gastrointestinal tract. The cause of IBD is an overreactive immune response, leading to prolonged inflammation and tissue damage. A key regulator of such inflammation, Interleukin-10 (IL-10), plays a fundamental role in modulating inflammation and maintaining cell homeostasis by protecting the body from an uncontrolled immune response by inhibiting pro-inflammatory cytokines like TNF-α and IL-6. However, IL-10’s therapeutic potential is severely limited by its structural instability due to its homodimer nature and easy degradation within the body. This instability reduces its effectiveness as a long-term treatment leaving patients with limited options for prolonged IBD treatments. To address this issue, we propose a probiotic-based approach, engineering a mutated more stable form of Il-10 (MIL-10). Delivered through dairy products like yogurt, this system would provide MIL-10 production in reaction to pro-inflammatory cytokines, ensuring sustained inflammation control for diseases like IBD. [Wiki](https://2025.igem.wiki/dbhs-ca) | [Official Page](https://teams.igem.org/5659)https://static.igem.org/peertube/streaming-playlists/hls/5c14904a-b2f8-4e1b-8aa0-42965db44f39/0018b6d3-3f45-4e95-a7e5-6edc304fdcfa-master.m3u8https://video.igem.org/videos/embed/cnugp1QTu2PKYaCsAyJ2Yn7150322025-10-15T13:39:44.530ZYES2025 PresentationsNOhttps://video.igem.org/w/eRN9HaoL332bNYmVMdKp6Ahttps://video.igem.org/lazy-static/thumbnails/1f9c5bb5-05b1-46e1-85f0-cb6374a8320a.jpgWashington: ExAway (2025) - Team Presentation [English]**Title:** ExAway **Description:** Our project is focused on lowering the virulence of Pseudomonas aeruginosa infection in humans. P. aeruginosa (PA), is an opportunistic bacteria commonly acquired from hospitals by immunocompromised individuals. Our project targets a biotoxin (toxin produced by a living organism in this case PA) called Exotoxin A (ExoA). ExoA prevents host cells from making proteins vital to living cells when ExoA binds to and is absorbed by host cells. Our project aims to provide a competitive inhibitor (molecule, in our case a protein, that binds to ExoA instead of a host cell) which would render it harmless by not allowing host cells to bind to ExoA. [Wiki](https://2025.igem.wiki/washington) | [Official Page](https://teams.igem.org/5660)https://static.igem.org/peertube/streaming-playlists/hls/703ab038-6a2f-4f07-a3a2-442536c40f58/582c0106-33e1-453a-8fa8-1580b3fbdc5a-master.m3u8https://video.igem.org/videos/embed/eRN9HaoL332bNYmVMdKp6A4790332025-10-15T14:12:07.304ZYES2025 PresentationsNOhttps://video.igem.org/w/2xBUDe2iWBB9yaWNaJGNCFhttps://video.igem.org/lazy-static/thumbnails/e440e026-dbc5-42fa-86be-4d2a2914b36a.jpgVilnius-Lithuania: IXPOSE: unlocking DNA detection potential of TIGR-Tas (2025) - Team Presentati...**Title:** IXPOSE: unlocking DNA detection potential of TIGR-Tas **Description:** Lithuania is Europe’s hotspot for tick-borne diseases. Every year, thousands of people are exposed to Lyme disease and tick-borne encephalitis. However, recent changes in Lithuania’s disease monitoring and reporting system have led to an overdiagnosis of Lyme disease, distorting statistics and masking the true picture of tick-borne infections. At the same time, our country lacks critical data on other, less known pathogens circulating in wild tick populations. Without this knowledge, researchers, doctors, and public health officials are left guessing. Meanwhile, as climate change and milder winters make ticks active nearly year-round, the risks are only increasing. To fill this gap, we introduce a breakthrough solution based on TIGR-Tas, a novel RNA-guided, DNA-targeting system. Unlike CRISPR-Cas, TIGR-Tas operates in a PAM-independent manner, dramatically expanding the range of detectable DNA sequences. When combined with lateral flow assays and isothermal DNA amplification methods such as RPA, TIGR-Tas can be transformed into a field-capable diagnostic tool. With this system, we aim to uncover the hidden diversity of pathogens ticks carry—empowering healthcare, improving prevention, contributing to science, and protecting communities across Lithuania and beyond. [Wiki](https://2025.igem.wiki/vilnius-lithuania) | [Official Page](https://teams.igem.org/5780)https://static.igem.org/peertube/streaming-playlists/hls/0c83530a-ebaa-4923-b2c1-e05a3fe6c9c7/d47b861e-6f9a-40d0-b10e-92e9ed3bbaff-master.m3u8https://video.igem.org/videos/embed/2xBUDe2iWBB9yaWNaJGNCF8090322025-10-15T16:28:35.740ZYES2025 PresentationsNOhttps://video.igem.org/w/gsWvXk6pY4NW3kyViYRTcbhttps://video.igem.org/lazy-static/thumbnails/c216409d-2f4c-4a67-b1f2-7aad9eb992d2.jpgUNILausanne: REEvolutionaTe - Revolutionising e-waste recycling (2025) - Team Presentation [English]**Title:** REEvolutionaTe - Revolutionising e-waste recycling **Description:** Our project, REEvolutionaTe, aims to develop a sustainable method for recovering rare earth elements (REEs) and tellurium (Te) using engineered bacteria capable of capturing and recycling these materials. Rare earth elements and tellurium are essential for industries such as electronics, renewable energy, and metallurgy, but their extraction is costly and polluting—especially from electronic waste or copper by-products. With global demand rising, particularly for praseodymium, neodymium, and dysprosium, it is crucial to find more eco-friendly alternatives. We focus on six rare earth elements (lanthanum, cerium, neodymium, dysprosium, gadolinium, praseodymium) and tellurium. Our work aims to design bacteria capable of efficiently extracting and recycling them from electronic waste. [Wiki](https://2025.igem.wiki/unilausanne) | [Official Page](https://teams.igem.org/5603)https://static.igem.org/peertube/streaming-playlists/hls/7d3c03ce-cd34-4851-a83f-cdd09a2a47bc/55b52153-a23f-4622-8b80-cc1a44357105-master.m3u8https://video.igem.org/videos/embed/gsWvXk6pY4NW3kyViYRTcb8630722025-10-15T16:30:03.785ZYES2025 PresentationsNOhttps://video.igem.org/w/8RBFsUsdXV9V3r5StFADWihttps://video.igem.org/lazy-static/thumbnails/08b21de7-779d-4b0e-9f14-627715e147ed.jpgKyoto: Avisptosis (2025) - Team Presentation [English]**Title:** Avisptosis **Description:** Our project aims to construct a novel defense system against avian influenza viruses that currently threaten global food security, utilizing synthetic biology as our primary approach. Rather than developing orthodox defense systems such as drugs or vaccines that inhabit viral entry into cells or viral replication, we are developing an innovative mechanism that prevents viral amplification within animal hosts by "actively inducing apoptosis in cells infected with influenza virus." Our ultimate goal is to suppress highly pathogenic avian influenza(HPAI) pandemics, thereby making significant contributions to improving food security issues and maintaining public health. [Wiki](https://2025.igem.wiki/kyoto) | [Official Page](https://teams.igem.org/5910)https://static.igem.org/peertube/streaming-playlists/hls/3f9d6778-a78c-4c93-97fe-74135a0ee4a1/e003760a-e563-453b-87e7-47ba29cbce79-master.m3u8https://video.igem.org/videos/embed/8RBFsUsdXV9V3r5StFADWi8940402025-10-15T16:07:15.480ZYES2025 PresentationsNOhttps://video.igem.org/w/fd4JjirV1Wudwq8HRL1R5jhttps://video.igem.org/lazy-static/thumbnails/0cdbab04-67bf-4f80-9cb8-da8582a9c36d.jpgQYZX-China: VitaPop Jelly: A Probiotic Platform for GLP-1 Delivery in Glucose Re... (2025) - Team...**Title:** VitaPop Jelly: A Probiotic Platform for GLP-1 Delivery in Glucose Regulation **Description:** According to the International Diabetes Federation, approximately 589 million adults worldwide have diabetes, with Type 2 diabetes comprising over 90% of cases. Persistent hyperglycemia can lead to serious multi-organ complications. Current treatments require frequent administration, creating practical burdens and reducing quality of life. Our project, VitaPop Jelly, addresses this through an innovative solution: using engineered E. coli Nissle 1917 to enable continuous intestinal secretion of GLP-1 for sustained glycemic control. We optimized the GLP-1 codon usage to enhance expression and implemented a dual biocontainment system using cysteine auxotrophy and a temperature-sensitive promoter to prevent transgenic leakage. We aim to provide people with diabetes with a safer, more convenient biologic treatment option that improves both health outcomes and daily life. [Wiki](https://2025.igem.wiki/qyzx-china) | [Official Page](https://teams.igem.org/6009)https://static.igem.org/peertube/streaming-playlists/hls/730f2a37-ce4e-429c-b187-6a976f17e4fe/961ed3fc-036d-4f0e-b4d4-04b07be3651e-master.m3u8https://video.igem.org/videos/embed/fd4JjirV1Wudwq8HRL1R5j7980142025-10-15T15:54:49.640ZYES2025 PresentationsNOhttps://video.igem.org/w/u7XuRrkXb65xwNgCM74CCEhttps://video.igem.org/lazy-static/thumbnails/56969fbd-0a01-4125-b0cc-76282e4d08d7.jpgUCS-A: SlimSpore: Revolutionizing Fat Management (2025) - Team Presentation [English]**Title:** SlimSpore: Revolutionizing Fat Management **Description:** Obesity is the main cause of many diseases, and the number of obese people worldwide is increasing at an alarming rate. In China, issues such as adolescent obesity have seriously affected the lives of many people. As a result, the country has put forward the concept of the "Year of Weight Management". Our goal is to make the sqr and fcsd enzymes produced in large quantities by special Escherichia coli into tablet or capsule forms to help with fat loss and blood sugar reduction, and we have built home and medical versions of hardware to assist in measuring the hydrogen sulfide content in patients' bodies. [Wiki](https://2025.igem.wiki/ucs-a) | [Official Page](https://teams.igem.org/5765)https://static.igem.org/peertube/streaming-playlists/hls/e3b88bef-5e9e-4e50-b236-787fd5592fd6/0b2fd409-167f-40e5-9923-242df49d468e-master.m3u8https://video.igem.org/videos/embed/u7XuRrkXb65xwNgCM74CCE9000132025-10-15T17:12:18.397ZYES2025 PresentationsNOhttps://video.igem.org/w/b1mxND7hC5dvUeXmuXtKdZhttps://video.igem.org/lazy-static/thumbnails/adfeaf83-79c9-46c6-ac8f-fa20007721ff.jpgKeystone: Using SELEX technology to screen targeted molecular probes for detecti... (2025) - Team...**Title:** Using SELEX technology to screen targeted molecular probes for detecting brain-derived tau protein **Description:** Alzheimer's Disease (AD) poses a global challenge with over 56 million affected, yet early detection remains limited by invasive or costly methods. Our project combines synthetic biology and CRISPR-Cas12a technology: using SELEX to screen DNA aptamers specifically targeting BD-Tau, a key AD biomarker, and coupling this with CRISPR's trans-cleavage activity for sensitive, low-cost detection. This approach enables non-invasive, precise early AD screening, aiming to improve diagnostic accessibility and patient outcomes. [Wiki](https://2025.igem.wiki/keystone) | [Official Page](https://teams.igem.org/5739)https://static.igem.org/peertube/streaming-playlists/hls/51080cca-c0a9-436c-9b15-e52d7e1e6da5/d614786e-250e-4bf0-852a-8a4f98ef0f4d-master.m3u8https://video.igem.org/videos/embed/b1mxND7hC5dvUeXmuXtKdZ8650212025-10-15T16:05:06.333ZYES2025 PresentationsNOhttps://video.igem.org/w/bo8fsWcN29e2mfhtKzFenwhttps://video.igem.org/lazy-static/thumbnails/b17c80f6-737d-4b7c-87e3-f59c796ed7d0.jpgWilliam-and-Mary: Aquarius: Channeling SynBio from the Lab to Aquatic Environments (2025) - Team ...**Title:** Aquarius: Channeling SynBio from the Lab to Aquatic Environments **Description:** The flow of water is essential to life on Earth, but can also carry negative consequences. Water movement transports pollutants to lakes, spreads harmful microbes through household plumbing, and corrodes infrastructure. Synthetic biology offers powerful solutions, yet few have been implemented in real-world aquatic environments. The lack of SynBio deployment in water environments stems from limited understanding of how engineered organisms function in dynamic environments, in which they must compete within native microbial communities, withstand shifting nutrient levels, and endure various physical stressors. Our project addresses this challenge through an integrated approach of chassis analysis software, predictive mathematical modeling, comprehensive RNA-seq meta-analysis and experimentation with engineered constructs in laboratory and aquatic settings. By analyzing how synthetic circuits behave in flowing water compared to laboratory settings, we uncover foundational design principles that will enable the development of safe, effective synthetic biology applications to tackle pressing global challenges linked to aquatic environments. [Wiki](https://2025.igem.wiki/william-and-mary) | [Official Page](https://teams.igem.org/5687)https://static.igem.org/peertube/streaming-playlists/hls/54123796-031c-4075-8123-9923d413ef7c/73954d91-7f97-4155-9475-13805eb2def5-master.m3u8https://video.igem.org/videos/embed/bo8fsWcN29e2mfhtKzFenw9030362025-10-15T16:14:34.140ZYES2025 PresentationsNOhttps://video.igem.org/w/f5s2tsKFdmtvtjLT3CgvqKhttps://video.igem.org/lazy-static/thumbnails/c7b5d034-40d5-4bab-a82c-1d4f859098a5.jpgVIS-Romania: PROMNESIS (2025) - Team Presentation [English]**Title:** PROMNESIS **Description:** This video summarises the main features of PROMNESIS, a synthetic biology therapeutic platform targeting multiple aspects of Alzheimer’s disease (AD) pathology. Instead of focusing on amyloid plaques, our solution tackles tau pathology, which is more closely linked to AD progression. We also discuss here the experiments performed, the models developed and the results obtained, which show that PROMNESIS holds the potential to work as a complete, modular treatment system. Through Human Practices work, we developed a design which prioritises safety, accessibility, and real-world impact. The feedback received helped us define the therapeutic targets, design control systems, and explore the real-life implications of AD. [Wiki](https://2025.igem.wiki/vis-romania) | [Official Page](https://teams.igem.org/5912)https://static.igem.org/peertube/streaming-playlists/hls/71fef47d-d9d9-4d71-8cab-41f72886d547/c406c44c-b418-45d3-baf1-c0f34d43c8da-master.m3u8https://video.igem.org/videos/embed/f5s2tsKFdmtvtjLT3CgvqK7480952025-10-15T16:29:10.883ZYES2025 PresentationsNOhttps://video.igem.org/w/o3a9cT9mSFgDU46o1NWTX8https://video.igem.org/lazy-static/thumbnails/52280622-a54a-42dd-9cb1-839e3682c572.jpgTsinghua: DuCon: A Dual-bacteria system for vinasse recycling through Conversion... (2025) - Team...**Title:** DuCon: A Dual-bacteria system for vinasse recycling through Conversion to succinate **Description:** Harboring large amounts of inferior carbon sources that are difficult to degrade ,the treatment of vinasse remains a key issue for environmental protection and resource utilization. In this year's iGEM competition, we innovatively designed a dual-bacteria system for the degradation of Baijiu vinasse and subsequent production of succinate (a high end-value product). In order to degrade inferior carbon sources in vinasse, we edited the gene of Trichoderma reesei (a chassis organism) by introducing the laccase gene of the white rot fungus into it, so that it could secrete laccase and cut lignin into short arenes (at the same time, the cellulase secreted by Trichoderma reesei could degrade cellulose, another common carbon source present in vinnase). Afterwards, another substrate organism, Pseudomonas putida, is introduced to absorb the short arenes and channel them into its own TCA pathway. Finally, we modified Pseudomonas putida's TCA pathway to specifically enrich succinate, then introduced a succinate efflux channel to secrete it for further application. The dual-bacteria system is expected to efficiently decompose cellulose and lignin in vinasse, and at the same time produce high value-added succinate, striking a balance between environmental protection and economic benefits. [Wiki](https://2025.igem.wiki/tsinghua) | [Official Page](https://teams.igem.org/5670)https://static.igem.org/peertube/streaming-playlists/hls/b2762bf3-a659-4138-803f-91c2069a8cf9/63a32f41-13d5-4545-9115-ef7fe32df996-master.m3u8https://video.igem.org/videos/embed/o3a9cT9mSFgDU46o1NWTX88930202025-10-15T16:12:22.919ZYES2025 PresentationsNOhttps://video.igem.org/w/fxvPFq9JhtRzA4VuuzKRyHhttps://video.igem.org/lazy-static/thumbnails/d7630db2-8808-4c0a-83bb-80f870deb06f.jpgHsinchuTaichung-TWN: Beads- bisphenol A analysis system (2025) - Team Presentation [English]**Title:** Beads- bisphenol A analysis system **Description:** Our project, BEADS (BPA Exposure Analysis and Detection System), addresses the global issue of Bisphenol A (BPA) exposure — an invisible yet pervasive threat found in plastics, canned food linings, and even receipts. BPA is an endocrine disruptor that mimics natural hormones, interfering with signaling in the human body and contributing to disorders such as infertility, metabolic disease, and developmental abnormalities. To make this invisible hazard detectable, we developed a yeast two-hybrid (Y2H) biosensing platform. By inserting the estrogen receptor domain (ESR1) into two plasmids, pGilda (BD) and pB42AD (AD), we designed a system where BPA binding induces receptor dimerization, reuniting the DNA-binding and activation domains to activate a reporter signal. This converts molecular recognition into a measurable output. Through structural optimization and mutagenesis, we enhanced the receptor’s sensitivity and specificity to BPA. Experimental results showed that our optimized ESR1 300+ fragment achieved a 60-fold higher response to BPA within three hours, compared to the full-length construct’s slower and weaker signal, demonstrating both improved accuracy and efficiency. Beyond the lab, we envision our platform as the foundation for accessible, affordable, and reusable BPA detection kits — adaptable for classrooms, households, and field testing. Using lyophilized yeast preserved with SMM protective formulation, we aim to enable safe, long-term storage and practical distribution. By providing validated plasmid constructs and a modular Y2H framework, our team contributes a versatile synthetic biology toolkit that future iGEM teams and community labs can build upon. Our goal is not to eliminate BPA entirely, but to empower society to detect and understand it — making the invisible visible. [Wiki](https://2025.igem.wiki/hsinchutaichung-twn) | [Official Page](https://teams.igem.org/6016)https://static.igem.org/peertube/streaming-playlists/hls/75c66069-6a74-4000-8d57-b5b5fd664b15/fb9f0ad4-cb73-455a-8deb-0e28af8fe9be-master.m3u8https://video.igem.org/videos/embed/fxvPFq9JhtRzA4VuuzKRyH7335332025-10-15T16:24:53.193ZYES2025 PresentationsNOhttps://video.igem.org/w/w1DGPpyaogvbtUxmkgDENphttps://video.igem.org/lazy-static/thumbnails/f4614bc6-d336-468b-9878-cb8f439f23fd.jpgUOregon: REDAPT (2025) - Team Presentation [English]**Title:** REDAPT **Description:** The University of Oregon's iGEM team present: Retron-Engineered Degranulation Alleviation Platform for Therapeutics (REDAPT). [Wiki](https://2025.igem.wiki/uoregon) | [Official Page](https://teams.igem.org/5867)https://static.igem.org/peertube/streaming-playlists/hls/f3096543-644f-4f6e-ae7c-0e46e1eb58f3/0a99cfb4-0314-43c1-974c-d0f45e7c37fc-master.m3u8https://video.igem.org/videos/embed/w1DGPpyaogvbtUxmkgDENp7010232025-10-15T16:02:29.418ZYES2025 PresentationsNOhttps://video.igem.org/w/31oXayNWQUbwu4S2HbQN85https://video.igem.org/lazy-static/thumbnails/51aa540b-1c5e-4ee7-967f-ea201ae2d702.jpgSCAU Guangzhou: High-folate Soybean：One cup of soymilk a day keeps you healthy a... (2025) - Team...**Title:** High-folate Soybean：One cup of soymilk a day keeps you healthy all the way! **Description:** Folate is a vitamin that functions in DNA synthesis, amino acid metabolism, and various biosynthetic pathways. Folate deficiency is directly associated with diseases like neural tube defects, megaloblastic anemia, cleft lip and palate. Globally, folate deficiency has become a serious public health problem. Industrially synthesized folic acid has poor metabolic efficiency, and the synthesis process causes serious environmental pollution. However, plant folate has high active derivatives, good absorption efficiency, and is sustainable. Therefore, the most effective way to supplement folate is food fortification. This project proposes a scheme for creating high-folate soybeans by integrating biosynthetic elements. Four key folate synthetases were over-expressed in soybean seeds. HPLC-MS detection showed that the enzyme HDFR can double the content of 5-methyl-tetrahydrofolate, the active folate component, which is good for people with genetic defects. Our project has successfully achieved expected goals and exerted extensive impacts in scientific research and society. [Wiki](https://2025.igem.wiki/scau-guangzhou) | [Official Page](https://teams.igem.org/5818)https://static.igem.org/peertube/streaming-playlists/hls/10406be4-235f-418f-bbcd-6b45bbf8d512/783d9179-9bf9-461e-b073-73fa7320a2ac-master.m3u8https://video.igem.org/videos/embed/31oXayNWQUbwu4S2HbQN858470132025-10-15T16:06:43.285ZYES2025 PresentationsNOhttps://video.igem.org/w/9ACzQ6RAasjaiF1sUu2RTBhttps://video.igem.org/lazy-static/thumbnails/da2436be-1c7c-4ff8-abb5-588a12d74cde.jpgMCA: Whole-Cell Catalytic Synthesis Plant for Sialic Acid (2025) - Team Presentation [English]**Title:** Whole-Cell Catalytic Synthesis Plant for Sialic Acid **Description:** Sialic acid is an important class of functional sugars. Its predominant form is N-acetylneuraminic acid (NeuAc), a key component of brain gangliosides and the monomeric unit of sialylated oligosaccharides in Human Milk Oligosaccharides (HMOs). In this project, we employ Escherichia coli to co-express the enzymes AGE (N-acetylglucosamine 2-epimerase) and NAL (N-acetylneuraminate lyase). To address issues of substrate-product flux balance and inter-enzyme mass transfer during the dual-enzyme catalytic process, we will assemble AGE and NAL into multi-enzyme complexes using either fusion protein technology or protein self-assembly technology. Leveraging the controllability (or tunability) of the self-assembly approach, we will optimize the expression ratio of the enzymes within the complexes to achieve highly efficient synthesis of sialic acid. [Wiki](https://2025.igem.wiki/mca) | [Official Page](https://teams.igem.org/5766)https://static.igem.org/peertube/streaming-playlists/hls/459ef154-a06e-4e17-8d9e-fa5f04a9b37d/e392fc39-e2e4-4bf8-9bfb-c0fb648ab1e2-master.m3u8https://video.igem.org/videos/embed/9ACzQ6RAasjaiF1sUu2RTB8660102025-10-15T17:28:30.892ZYES2025 PresentationsNOhttps://video.igem.org/w/eXY3ZQs8TJQHGFVjAZVdnMhttps://video.igem.org/lazy-static/thumbnails/1b3eee62-f638-4dbf-a47b-abc972116961.jpgCSU-CHINA: LACMA: Lactate-responsive Module and Application (2025) - Team Presentation [English]**Title:** LACMA: Lactate-responsive Module and Application **Description:** Our project addresses the lactate-rich tumor microenvironment by engineering a lactate-responsive module that enables immune cells(e.g., CAR-T cells in Car-T therapy) to secrete lactate oxidase (sLOx) and reduce excess lactate. To build this module, a lactate sensing protein is split to two fragments, which are fused to the N-terminal and C-terminal fragments of TEV-protease, respectively. High lactate induces TEV-protease reconstitution, which then cleaves a GV-2ER fusion protein to release the transcription factor GV (Gal4-VP64). GV enters the nucleus and activates sLOx expression, lowering lactate concentration and enhancing immune cell anti-tumor efficacy. [Wiki](https://2025.igem.wiki/csu-china) | [Official Page](https://teams.igem.org/5731)https://static.igem.org/peertube/streaming-playlists/hls/711740c4-bda6-4ebb-a83f-cd9ded78acb7/37438937-c632-48ce-813d-ad8d1106b005-master.m3u8https://video.igem.org/videos/embed/eXY3ZQs8TJQHGFVjAZVdnM8510392025-10-15T16:20:28.108ZYES2025 PresentationsNOhttps://video.igem.org/w/chxXTmScqwYNXechFyrSeLhttps://video.igem.org/lazy-static/thumbnails/38145a58-9b17-4913-86e8-894e2140ff85.jpgWestview-SanDiego: PHoeBe: Achieving a Feasible Plastic Alternative in the Form ... (2025) - Team...**Title:** PHoeBe: Achieving a Feasible Plastic Alternative in the Form of PHB **Description:** PHoeBe: Achieving a Feasible Plastic Alternative in the Form of PHB Westview-SanDiego iGEM Project Video 2025 [Wiki](https://2025.igem.wiki/westview-sandiego) | [Official Page](https://teams.igem.org/5934)https://static.igem.org/peertube/streaming-playlists/hls/5b641fb2-3b39-49da-9448-9580e33cc1ee/f8e5b499-4333-4e53-8f61-de737c2d9105-master.m3u8https://video.igem.org/videos/embed/chxXTmScqwYNXechFyrSeL8760192025-10-15T16:08:33.699ZYES2025 PresentationsNOhttps://video.igem.org/w/9yyvH3CUAhmbtUa1hSMh1zhttps://video.igem.org/lazy-static/thumbnails/298924c5-6d74-40c1-8723-7d7574e18f69.jpgZZU-China: ExoAPT-CRISPR: A Targeted Detection Platform for Breast Cancer Exosom... (2025) - Team...**Title:** ExoAPT-CRISPR: A Targeted Detection Platform for Breast Cancer Exosome Biomarkers **Description:** This video presents the comprehensive trajectory of our project — from conceptualization and research design to experimental validation, system optimization, human practices, and collaborative contributions within the iGEM community. Breast cancer remains one of the most prevalent and life-threatening malignancies among women worldwide. Despite continuous advances in molecular diagnostics, current early-screening approaches often fail to meet the demands of accessibility, sensitivity, and non-invasiveness, resulting in delayed diagnosis and suboptimal clinical outcomes. In response to this unmet need, our project aims to construct a novel exosome-based detection platform integrating aptamer-mediated molecular recognition with the CRISPR–Cas nucleic acid detection system. Specifically, we sought to exploit the high-affinity and target-specific binding capacity of aptamers in conjunction with the programmable cleavage activity of CRISPR effectors, thereby achieving rapid and sensitive detection of breast cancer biomarkers. At the early stage of system development, we employed the CRISPR–Cas12a platform to establish proof-of-concept validation and signal amplification feasibility. Through iterative optimization, we subsequently introduced the CRISPR–Cas14a system, whose unique collateral cleavage activity and superior signal-to-noise performance enabled ultra-sensitive fluorescence detection with enhanced analytical precision. High-affinity aptamers were screened against exosomal surface proteins, and complementary strands were rationally designed to trigger CRISPR activation upon target engagement. Upon aptamer–target binding, the Cas14a complex is activated to cleave a fluorescent reporter, producing a quantifiable signal that correlates with biomarker concentration. The overall framework was constructed following principles of modularity, standardization...https://static.igem.org/peertube/streaming-playlists/hls/4554f23f-236d-4552-8e27-c43664b64b09/c7f7d1c0-f726-403c-a9b2-a9d429dc6512-master.m3u8https://video.igem.org/videos/embed/9yyvH3CUAhmbtUa1hSMh1z8820212025-10-15T16:10:12.120ZYES2025 PresentationsNOhttps://video.igem.org/w/1Z1Db4PKA35xHQXbFwzS21https://video.igem.org/lazy-static/thumbnails/d466d0c3-6133-41b3-bc36-4b7a026af247.jpgShanghai-HS: Low-burden Dairy Products: Reduced lactose, lowered sugar and Incre... (2025) - Team...**Title:** Low-burden Dairy Products: Reduced lactose, lowered sugar and Increased fiber **Description:** Dairy products are essential for human health. Our project utilizes enzyme engineering and synthetic biology to express two recombinant enzymes: transgalactosidase and glucose oxidase. Transgalactosidase catalyzes the conversion of lactose into galactooligosaccharides (GOS) and glucose, whereas glucose oxidase converts glucose into gluconic acid. This process not only alleviates lactose intolerance symptoms but also reduces sugar content and enriches prebiotics in dairy products. Ultimately, it achieves lower carbohydrate intake and higher dietary fiber content, providing a healthier dairy option for consumers. [Wiki](https://2025.igem.wiki/shanghai-hs) | [Official Page](https://teams.igem.org/5923)https://static.igem.org/peertube/streaming-playlists/hls/07f5ca35-1ddc-443e-bf61-40d43aca39aa/e3b63b86-80ab-4751-b88c-89fb7c71a8d6-master.m3u8https://video.igem.org/videos/embed/1Z1Db4PKA35xHQXbFwzS218370182025-10-15T16:12:56.538ZYES2025 PresentationsNOhttps://video.igem.org/w/7qzKkXSZe9j7JKkLqCvgEvhttps://video.igem.org/lazy-static/thumbnails/0d17a01c-7839-4056-bd89-94666923cb9d.jpgUManitoba: LacThera - probiotic 2.0. (2025) - Team Presentation [English]**Title:** LacThera - probiotic 2.0. **Description:** Imagine that the infection doesn't come back once it has been treated. Imagine that instead of sacrificing your internal balance, you help rebuild and maintain it. That is the vision of LacThera. Natural restoration. Engineered defence. [Wiki](https://2025.igem.wiki/umanitoba) | [Official Page](https://teams.igem.org/5720)https://static.igem.org/peertube/streaming-playlists/hls/34057ade-b8f2-420f-a227-f47ed95b531d/30b1f085-69a8-47e9-81fe-65d7d6f3b11a-master.m3u8https://video.igem.org/videos/embed/7qzKkXSZe9j7JKkLqCvgEv5305232025-10-15T16:17:16.320ZYES2025 PresentationsNOhttps://video.igem.org/w/e2aCADPJKqBb95YhdhBWm9https://video.igem.org/lazy-static/thumbnails/f60eb5b3-4607-42a7-90cf-88b647dff8f0.jpgSubCat-China: Construction of a Chitinase Expression Genetic System and Its Appl... (2025) - Team...**Title:** Construction of a Chitinase Expression Genetic System and Its Application in Biomass Resource Degradation and Conversion **Description:** Chitin, composed of N-acetyl-D-glucosamine, is the second largest polymer in nature after cellulose. Chitinases have the ability to degrade fungal cell walls and insect exoskeletons and produce N-acetylglucosamine oligomers or monomers. Chitinases catalyze chitin degradation, thus playing an important role and holding great potential in agriculture, medicine, and industry. Three chitinases from microbial sources were screened. Then, a chitinase-expressing genetic system was constructed by recombining the in vitro synthesized gene into a plasmid and expressing it in Escherichia coli. The constructed E. coli genetic system was optimized by testing chitin expression and enzyme activity. Expression conditions and gene sequence were adjusted to increase chitinase production and activity. By adding waste materials such as shrimp or crab shells to the chitinase or bacterial solution, the chitin in the shells can be recovered into valuable products such as amino acids, calcium lactate, and high-purity chitin, thereby improving biomass energy utilization. [Wiki](https://2025.igem.wiki/subcat-china) | [Official Page](https://teams.igem.org/5721)https://static.igem.org/peertube/streaming-playlists/hls/69707b4d-fb4c-4b41-a704-1d94a7419620/4b177b72-cbce-4ef7-8c93-d7c0801c91c3-master.m3u8https://video.igem.org/videos/embed/e2aCADPJKqBb95YhdhBWm98960132025-10-15T16:41:01.228ZYES2025 PresentationsNOhttps://video.igem.org/w/77w8yMyBosJgrU2PKEbbEKhttps://video.igem.org/lazy-static/thumbnails/d9d2d7c6-6b47-44b0-b272-e9f4b43e1d51.jpgSaltLakeCommColl11: SLCC LactoBruins: GlutaGuard, Engineering Lactobacillus to S... (2025) - Team...**Title:** SLCC LactoBruins: GlutaGuard, Engineering Lactobacillus to Sense and Neutralize ROS **Description:** Polluted air is associated with urgent health risks, from asthma and ER visits to long-term damage caused by reactive oxygen species (ROS). These molecules accumulate at dangerous levels in Utah from thermal inversions, and possibly also from Great Salt Lake dust, which is under current investigation. Allow us to present GlutaGuard, a solution by the LactoBruins team that uses engineered Lactobacillus to detect ROS and release glutathione, a potent antioxidant, only when needed, reducing oxidative stress and protecting health from the inside out. Unlike low-bioavailability supplements, this targeted, on-demand approach is being developed to safeguard residents’ health while we find long-term solutions for protecting our air and preserving Utah’s natural beauty. [Wiki](https://2025.igem.wiki/saltlakecommcoll11) | [Official Page](https://teams.igem.org/5955)https://static.igem.org/peertube/streaming-playlists/hls/317fdcf5-79c5-4704-865b-fb336dee9e3f/b211c82d-696c-480b-a3e1-77bb9fe6ee44-master.m3u8https://video.igem.org/videos/embed/77w8yMyBosJgrU2PKEbbEK8700162025-10-15T16:22:10.819ZYES2025 PresentationsNOhttps://video.igem.org/w/qKWYXgBnBqAsmawJmefPXxhttps://video.igem.org/lazy-static/thumbnails/33c629f0-35f8-401e-ade3-96299f19a962.jpgPCA Korea: Colors from bacteria: production of natural dyes with synthetic biology (2025) - Team ...**Title:** Colors from bacteria: production of natural dyes with synthetic biology **Description:** Synthetic dyes are widely used in the textile industry but generate toxic effluents that cause serious environmental pollution. Our project seeks to provide a sustainable alternative by engineering Escherichia coli to biosynthesize several natural pigments, carotenoids (red, orange), violaceins (ranging from green to purple), and indigo (blue). We focus on optimizing tryptophan metabolism to efficiently channel precursors toward pigment biosynthesis, ensuring higher yields and consistent production. For indigo, we are also exploring novel flavin monooxygenases with enhanced catalytic activity and stability, aiming to overcome the limitations of existing enzymes. Through a combination of metabolic pathway engineering and enzyme discovery, we aim to create a robust microbial production platform capable of replacing harmful synthetic dye processes. By demonstrating the potential of microbial biosynthesis for natural dyes in E. coli, this project highlights synthetic biology’s ability to address environmental challenges and proposes an eco-friendly approach for the future of textile dyeing. [Wiki](https://2025.igem.wiki/pca-korea) | [Official Page](https://teams.igem.org/5995)https://static.igem.org/peertube/streaming-playlists/hls/c87e319b-75c5-4dd0-959d-8de00128a931/9340803a-9dd8-4bdc-855f-d71e754894ec-master.m3u8https://video.igem.org/videos/embed/qKWYXgBnBqAsmawJmefPXx80901152025-10-15T16:26:19.315ZYES2025 PresentationsNOhttps://video.igem.org/w/7dkub69paSCvM6uVFdi2Nbhttps://video.igem.org/lazy-static/thumbnails/000c569f-05af-4736-bd0b-4e6c46084553.jpgShanghai-city: Development of a Non-Invasive Prenatal Detection Platform for Dys... (2025) - Team...**Title:** Development of a Non-Invasive Prenatal Detection Platform for Dystrophic Epidermolysis Bullosa (DEB) **Description:** This project combines synthetic biology with CRISPR-Cas12a technology to create a non-invasive prenatal diagnostic platform for DEB. We designed and constructed a novel plasmid vector for the expression of the Cas12a protein, which was successfully expressed and purified in E. coli through a streamlined synthetic biology workflow. The purified Cas12a enzyme was used in conjunction with Recombinase Polymerase Amplification (RPA) to detect two high-frequency mutations in the COL7A1 gene (c.520G>A and c.6745C>T), which are major causes of DEB. By extracting cell-free fetal DNA (cfDNA) from maternal blood, we were able to amplify and analyze the target mutations. Cas12a’s unique trans-cleavage activity enabled the detection of mutation-specific signals, providing high sensitivity and specificity. [Wiki](https://2025.igem.wiki/shanghai-city) | [Official Page](https://teams.igem.org/6004)https://static.igem.org/peertube/streaming-playlists/hls/324fc406-8987-4b1f-b3b0-bcf5e6f6d8a2/90210384-924b-457a-861a-25e5b47eb773-master.m3u8https://video.igem.org/videos/embed/7dkub69paSCvM6uVFdi2Nb8940162025-10-15T16:16:18.713ZYES2025 PresentationsNOhttps://video.igem.org/w/rTrkmUFKQaqk9XfJj3rMothttps://video.igem.org/lazy-static/thumbnails/592cc384-ee6a-47d0-af77-542afbe141cd.jpgIOANNINA: AMADRYADS: A (CRISPR-Cas13d) Mediated Antifungal treatment, Deploying ... (2025) - Team...**Title:** AMADRYADS: A (CRISPR-Cas13d) Mediated Antifungal treatment, Deploying a Riboswitch, Yielding Apoptotic Defense in a Systemic way **Description:** Welcome to Team Ioannina’s AMADRYADS presentation! In this short video, we introduce our project’s mission: rescuing plane trees from the deadly Ceratocystis platani fungus using a novel synthetic biology approach. We start by explaining our core mechanism — a chitosan-based nanocarrier that delivers a toehold-controlled CRISPR-Cas13d system precisely into the pathogen. Moving beyond the lab: our efforts in human practices and inclusivity, where we engaged with marginalized communities, made accessible educational content, and collaborated with diverse partners. We also highlight our entrepreneurial vision, showing how AMADRYADS could be scaled and deployed globally in affected ecosystems. This is just a glimpse. To dive deeper into our designs, data, outreach work, and future plans, visit our Wiki: https://2025.igem.wiki/ioannina/ AMADRYADS | iGEM IOANNINA 2025 [Wiki](https://2025.igem.wiki/ioannina) | [Official Page](https://teams.igem.org/5684)https://static.igem.org/peertube/streaming-playlists/hls/d1a302e3-38f8-47c6-9b8b-761677409e33/b2d6f405-7485-4602-9237-daa33073270d-master.m3u8https://video.igem.org/videos/embed/rTrkmUFKQaqk9XfJj3rMot8860352025-10-15T16:44:45.705ZYES2025 PresentationsNOhttps://video.igem.org/w/jESHe6WX6fH75JWXkjxh9Lhttps://video.igem.org/lazy-static/thumbnails/df4c6f87-cce1-436a-bde2-f9640c625e81.jpgCUG-China: Microbial Electrosynthesis of Glycerol from CO₂ via Engineered Acidit... (2025) - Team...**Title:** Microbial Electrosynthesis of Glycerol from CO₂ via Engineered Acidithiobacillus ferrooxidans **Description:** Facing the dual challenges of greenhouse gas accumulation and renewable energy intermittency, electrochemical CO₂ reduction presents a promising solution by converting electrical energy into storable chemicals. The CUG-China 2025 project engineers the acidophilic bacterium Acidithiobacillus ferrooxidans – which naturally thrives in extreme acidic conditions (pH<2) – to create a novel electricity-driven carbon fixation platform. This engineered strain incorporates three key synthetic modules: enhanced extracellular electron uptake, efficient glycerol synthesis from fixed carbon, and optimized CO₂ fixation via the Calvin cycle. When integrated into a microbial electrochemical system, the platform achieves efficient CO₂ conversion while producing valuable chemicals, offering a sustainable approach to simultaneous carbon mitigation and energy storage. [Wiki](https://2025.igem.wiki/cug-china) | [Official Page](https://teams.igem.org/5665)https://static.igem.org/peertube/streaming-playlists/hls/973202c2-2de3-4f4c-ba29-d235efe8c5d4/2484e335-1e2f-4457-a593-130c76ad20a8-master.m3u8https://video.igem.org/videos/embed/jESHe6WX6fH75JWXkjxh9L825082025-10-15T17:19:19.497ZYES2025 PresentationsNOhttps://video.igem.org/w/bTaTnKsWFaXY9aSkHrNeXPhttps://video.igem.org/lazy-static/thumbnails/7484f5c5-277a-4db9-b378-9f92907108a5.jpgZJU-China: LumaManta: a one-stop, continuous, spatiotemporal aquatic information... (2025) - Team...**Title:** LumaManta: a one-stop, continuous, spatiotemporal aquatic information-detecting device for ecological system. **Description:** To better PROTECT, we must first DETECT. LumaManta, developed by ZJU-China, is an all-in-one bio-intelligent underwater device for continuous spatiotemporal detection and treatment of aquatic environments. Aiming to advance environmental conservation, it integrates four biological modules—Detection, aTF Production, Treatment, and Algae–Bacteria Symbiosis—within a manta-ray-inspired body to achieve autonomous ecosystem monitoring. The Detection Module employs a cell-free biosensing system using DNA strand displacement, and PSR amplification to detect metal ions, biomolecules, and eDNA in real time. The aTF Production Module applies AI-assisted protein reprogramming to expand sensing specificity, while the Treatment Module uses protein scaffolds for pollutant absorption and molecular collection. The Symbiosis System maintains a cyanobacteria–E. coli co-culture for CO₂ fixation and nutrient cycling, enabling sustainable, long-term operation. LumaManta represents a new paradigm for bio-driven conservation technology—turning detection into the first step toward sustainable protection of aquatic life. [Wiki](https://2025.igem.wiki/zju-china) | [Official Page](https://teams.igem.org/5869)https://static.igem.org/peertube/streaming-playlists/hls/58206944-1d91-48d2-b536-4880ba23ac99/b6749b96-4d9a-4c9d-b27c-d7b0e0cb33d1-master.m3u8https://video.igem.org/videos/embed/bTaTnKsWFaXY9aSkHrNeXP9000512025-10-15T16:26:57.320ZYES2025 PresentationsNOhttps://video.igem.org/w/74XnRhU3C13RLyCEmUnRpFhttps://video.igem.org/lazy-static/thumbnails/74c5db2f-b386-485a-aa45-ff1215717ee3.jpgStony-Brook: Cas-T Away (2025) - Team Presentation [English]**Title:** Cas-T Away **Description:** In this video, SBiGEM shows their presentation video, detailing their project, Cas-T Away. Enjoy! Auto-generated captions are available in English. [Wiki](https://2025.igem.wiki/stony-brook) | [Official Page](https://teams.igem.org/5540)https://static.igem.org/peertube/streaming-playlists/hls/312430bd-3671-49ba-bde8-0bbb5c16d9c9/66dc7bb8-d5d3-4668-bb66-dac9ecc43859-master.m3u8https://video.igem.org/videos/embed/74XnRhU3C13RLyCEmUnRpF8890252025-10-15T16:35:34.933ZYES2025 PresentationsNOhttps://video.igem.org/w/9wa5ANUPxcVoRTQEh6Dhydhttps://video.igem.org/lazy-static/thumbnails/18d92360-1d98-43d8-abd1-7059f02d8681.jpgIIT-Madras: EPIC : Epigenetic Programmable Intervention & Control (2025) - Team Presentation [Eng...**Title:** EPIC : Epigenetic Programmable Intervention & Control **Description:** Targeted DNA methylation is a promising strategy for programmable gene regulation. To explore this concept, we designed and expressed a novel fusion protein, dCas9-Dam (DNA adenine methyltransferase), in E. coli. Using guide RNA, dCas9 was directed to user-defined loci, enabling targeted adenine methylation at GATC sites. We constructed a plasmid encoding dCas9-Dam along with the guide RNA, and a separate reporter plasmid containing a GFP gene downstream of a methylation-sensitive promoter. Co-transfection into E. coli allowed us to evaluate whether dCas9-Dam could induce site-specific methylation and modulate GFP expression. Our results will determine the ability of dCas9-Dam to achieve locus-specific DNA methylation and regulate reporter gene expression. This system can be extended to other methyltransferases in bacteria, paving the way for applications in biomanufacturing, therapeutics, and diagnostics. By enabling precise epigenetic editing, this approach holds significant potential for developing novel treatments for diseases associated with abnormal DNA methylation, such as cancer, neurodegenerative disorders, and imprinting-related syndromes. We developed two software tools, ECHO and ENIGMA, to connect epigenetic regulation with cellular metabolism. ECHO, Epigenetic Control and Hybrid Optimization, predicts how changes in DNA methylation affect gene expression. It uses ElasticNet regression to identify key CpG sites and an Adaptive Regressive Convolutional Neural Network AR CNN to model their impact on genes. This allows us to pinpoint the most important methylation targets for controlling gene activity. ENIGMA, Epigenetic Network Integration for Genome scale Metabolic Analysis, takes ECHO’s and other deep learning models' predictions and simulates how these gene expression changes affect cellular metabolism. It integrates methylation induced gene expression into genome scal...https://static.igem.org/peertube/streaming-playlists/hls/44ff0488-5617-4ae9-b570-757921edff24/3b8af144-3f98-4f6a-a690-0e6380267174-master.m3u8https://video.igem.org/videos/embed/9wa5ANUPxcVoRTQEh6Dhyd7170302025-10-15T16:11:41.756ZYES2025 PresentationsNOhttps://video.igem.org/w/xbet9zyEW5FdxrkEBKrZ18https://video.igem.org/lazy-static/thumbnails/80a9d739-f9a5-4a07-9163-628aa9983c77.jpgVirginia: The Cysteinator - a biological device to enhance biohydrogen production. (2025) - Team ...**Title:** The Cysteinator - a biological device to enhance biohydrogen production. **Description:** The effects of climate change underscore the need to develop sustainable energy technology. Hydrogen (H2) based sustainable energy solutions decarbonize high-heat industrial processes and long-distance transport. However, current H2 production is land and water-intensive, and largely reliant on fossil fuels. Dark Fermentation (DF)—an anaerobic process where glucose is converted to H2—is a sustainable alternative that can be integrated into waste-to-energy (WTE) streams. Currently, DF cannot produce H2 in commercially viable quantities. Our device, “The Cysteinator”, solves this challenge by supplementing DF bioreactor feedstocks with precise concentrations of L-cysteine. L-cysteine lowers the oxidation-reduction potential in DF feedstocks, helping hydrogen-producing bacteria propagate and increasing hydrogenase function. Our device is accompanied by a multi-scale model that characterizes its behavior and informs its implementation in a variety of WTE streams. Our project includes thorough analyses on the Cysteinator’s impact on WTE streams, DF market viability, and the UN’s Sustainable Development Goals. [Wiki](https://2025.igem.wiki/virginia) | [Official Page](https://teams.igem.org/5664)https://static.igem.org/peertube/streaming-playlists/hls/fc790941-32b2-43ff-b5c7-a8ceb55edd83/807e7672-80ba-4c19-9ce7-9fdcd6971fb7-master.m3u8https://video.igem.org/videos/embed/xbet9zyEW5FdxrkEBKrZ188200132025-10-15T16:10:52.050ZYES2025 PresentationsNOhttps://video.igem.org/w/3dxyFkvvhJnEqdrgdYb7ybhttps://video.igem.org/lazy-static/thumbnails/4eef987f-bda5-4f57-8d58-dafc0ab5f444.jpgPatras: Aechmi: sharp precision in early sepsis detection (2025) - Team Presentation [English]**Title:** Aechmi: sharp precision in early sepsis detection **Description:** Sepsis is a silent killer: fast, deadly, and often undetected until it’s too late. Affecting 49 million people and causing 11 million deaths each year, early diagnosis can mean the difference between life and death. At iGEM Patras 2025, we developed Aechmi, a system that combines CRISPR/Cas13a-based microRNA detection with Catalytic Hairpin Assembly (CHA) amplification. Guided by machine learning, it identifies bacterial sepsis biomarkers and produces an electrochemical signal suitable for integration into a real-time biosensor. Believing that healing extends beyond hospitals, we built an inclusive scientific community: creating an accessible lab, engaging with special-needs schools, offering sign language interpretation, and promoting diversity in science. Because science should serve everyone and everyone should be part of it. [Wiki](https://2025.igem.wiki/patras) | [Official Page](https://teams.igem.org/5836)https://static.igem.org/peertube/streaming-playlists/hls/11f2a77a-1e28-440a-8b91-7e75be305af2/128cd825-0da7-4801-8143-c7dce175275b-master.m3u8https://video.igem.org/videos/embed/3dxyFkvvhJnEqdrgdYb7yb7640672025-10-15T17:29:56.275ZYES2025 PresentationsNOhttps://video.igem.org/w/nT9xNfxd76P1cSUNhKvNNBhttps://video.igem.org/lazy-static/thumbnails/be141cf0-92be-4a9c-8464-ca688daec56d.jpgJiashu-China: Dual-Function Probiotic: Protecting Astronauts’ Muscle and Mental ... (2025) - Team...**Title:** Dual-Function Probiotic: Protecting Astronauts’ Muscle and Mental Health **Description:** Commercial spaceflight is rapidly evolving from experimental trials to large-scale operations, with companies like SpaceX, Blue Origin, and Virgin Galactic—and China’s own emerging space sector—driving down launch costs and opening the door to space tourism, lunar bases, and Mars colonization. Yet long-duration missions pose serious health risks, particularly microgravity-induced muscle loss and mood disorders. We address this challenge by engineering E. coli Nissle 1917 with a de novo HMB biosynthesis pathway to combat sarcopenia and a serotonin pathway to support mental well-being, creating a dual-function probiotic to safeguard astronaut health and enable sustainable human presence in space. [Wiki](https://2025.igem.wiki/jiashu-china) | [Official Page](https://teams.igem.org/5983)https://static.igem.org/peertube/streaming-playlists/hls/b1341cb6-d16e-4c2f-9b41-785f295b42bf/e9de6b9a-906a-4bfd-a61e-1d365fe97dff-master.m3u8https://video.igem.org/videos/embed/nT9xNfxd76P1cSUNhKvNNB9020372025-10-15T16:30:59.824ZYES2025 PresentationsNOhttps://video.igem.org/w/fGCU8gebCh94CbYhjnVn9whttps://video.igem.org/lazy-static/thumbnails/2e23080c-d137-4e7f-b7f1-6f2e66e896e7.jpgTJI-Seoul: MHC Modification for Enhanced Tumor Antigen Delivery (2025) - Team Presentation [English]**Title:** MHC Modification for Enhanced Tumor Antigen Delivery **Description:** This is the presentation video for TJI-Seoul Team. [Wiki](https://2025.igem.wiki/tji-seoul) | [Official Page](https://teams.igem.org/5909)https://static.igem.org/peertube/streaming-playlists/hls/770c6e82-76b5-4074-9e77-1eed9b59a5ba/09ca76a7-bdd7-4715-8afc-f966db2894ff-master.m3u8https://video.igem.org/videos/embed/fGCU8gebCh94CbYhjnVn9w5340262025-10-15T16:15:30.150ZYES2025 PresentationsNOhttps://video.igem.org/w/1ijeWaSoeqkTCMUSokBGnphttps://video.igem.org/lazy-static/thumbnails/3109a534-b347-4941-a8fc-a7e1c91d3c87.jpgAthens: KERBEROS: Key Engineered Response for Binding and Elimination of Residua... (2025) - Team...**Title:** KERBEROS: Key Engineered Response for Binding and Elimination of Residual Orally-internalized Synthetic particles **Description:** Microplastics, plastic particles smaller than 5 mm, can bind harmful molecules and commonly cause inflammation and oxidative stress in cells. Due to their polymeric structure, they show high affinity for Carbohydrate-Binding Modules (CBMs), domains found in carbohydrate-active enzymes (CAZymes) that normally bind polysaccharides. The effects of PET, LDPE, and PS microplastics are being studied in Drosophila melanogaster fed with microplastic-enriched food. A genetically modified Saccharomyces boulardii CNCM I-745 strain, engineered to display CBM on its surface using the Aga2p system, is added to the flies’ food to test in vivo microplastic binding and excretion. Yeast viability is evaluated in a bioreactor simulating the large intestine, supporting its potential as a live therapeutic delivery system. Adsorption kinetics are modeled in an in silico intestinal environment, and molecular docking and machine learning (Pythia) are used to predict and optimize CBM–polymer interactions for future experimental validation. [Wiki](https://2025.igem.wiki/athens) | [Official Page](https://teams.igem.org/5930)https://static.igem.org/peertube/streaming-playlists/hls/026ae291-d671-4ad8-869a-0c1ef7ef0d61/e9a9961f-c330-46f4-be8f-c7b92f287a92-master.m3u8https://video.igem.org/videos/embed/1ijeWaSoeqkTCMUSokBGnp8850402025-10-15T16:18:32.688ZYES2025 PresentationsNOhttps://video.igem.org/w/1pBP2M4pgcbhjJkR9rgSv6https://video.igem.org/lazy-static/thumbnails/529bb412-2216-4d77-bae7-d584429c5c80.jpgSUIS-PINGHE: Research on the Application of Mussel Adhesive Proteins in Antibact... (2025) - Team...**Title:** Research on the Application of Mussel Adhesive Proteins in Antibacterial Coatings for Medical Devices **Description:** Mussel foot proteins (Mfps) are a class of proteins secreted by mussel byssus, featuring exceptional underwater adhesion, waterproofness, toughness, and durability. They exhibit great application potential in fields such as biomedicine, cosmetics, and medical coatings. However, the current production of Mfps mainly relies on direct extraction from mussels, a process that is costly, inefficient, and unable to meet the demand for high yield and consistent quality. To overcome this bottleneck, the present study aims to explore the use of Escherichia coli as a biosynthetic platform for the efficient production of Mfps through a heterologous expression strategy. Furthermore, by applying sequence-based molecular design, we seek to construct functional fusion proteins with strong adhesiveness, enhanced antibacterial activity, and good biocompatibility for the preparation of antimicrobial coatings for medical devices. [Wiki](https://2025.igem.wiki/suis-pinghe) | [Official Page](https://teams.igem.org/5738)https://static.igem.org/peertube/streaming-playlists/hls/034c2d0a-b525-4748-8406-f22573c8eb47/31e24dc2-40f6-4737-8f51-cb17afd4db0c-master.m3u8https://video.igem.org/videos/embed/1pBP2M4pgcbhjJkR9rgSv68200142025-10-15T16:18:06.446ZYES2025 PresentationsNOhttps://video.igem.org/w/wvo83MPej2PTUrNzpxjmAYhttps://video.igem.org/lazy-static/thumbnails/6875b2e0-ce87-4d8d-8d77-af3d354d6f7c.jpgProfuture-BJ: FluVERSAL - A Step Towards a Universal Vaccine (2025) - Team Presentation [English]**Title:** FluVERSAL - A Step Towards a Universal Vaccine **Description:** Influenza remains a major global health challenge, infecting up to 10% of the population annually and causing significant morbidity and mortality, especially among vulnerable groups. Current vaccines require yearly reformulation due to rapid viral mutation, often resulting in reduced effectiveness. Our iGEM project aims to design a universal influenza vaccine that targets the highly conserved HA2 region of the hemagglutinin protein. [Wiki](https://2025.igem.wiki/profuture-bj) | [Official Page](https://teams.igem.org/5971)https://static.igem.org/peertube/streaming-playlists/hls/f70c5cac-0a7e-4081-9e6a-0a9e926f921c/63c832e6-fc33-45a0-952e-cc8a7bdd5141-master.m3u8https://video.igem.org/videos/embed/wvo83MPej2PTUrNzpxjmAY7400152025-10-15T17:08:53.601ZYES2025 PresentationsNOhttps://video.igem.org/w/hDK1q83pPVT2PDLKPCC2S3https://video.igem.org/lazy-static/thumbnails/ac832acc-2c2e-4e5c-b052-845f009bc349.jpgREC-CHENNAI: SaltEnPep: Redefining salt perception through synthetic biology (2025) - Team Presen...**Title:** SaltEnPep: Redefining salt perception through synthetic biology **Description:** SaltEnPep by iGEM Team REC-CHENNAI 2025 presents a synthetic biology-driven solution to global sodium overconsumption. Our project designed a SynBio based approach for production of saltiness-enhancing peptides that preserve flavor while reducing salt intake. Combining intein-mediated expression, chitin affinity purification, and electronic tongue validation, we built an integrated workflow that unites molecular biology, computational modeling, and hardware innovation. Guided by sustainability, human practices, and entrepreneurial vision, SaltEnPep transforms a health challenge into a scalable biotech opportunity. It exemplifies how synthetic biology can merge science, health, and taste—paving the way for a smarter, healthier future. [Wiki](https://2025.igem.wiki/rec-chennai) | [Official Page](https://teams.igem.org/5839)https://static.igem.org/peertube/streaming-playlists/hls/86d73dfe-3804-4d7a-8973-fab6006ee67a/7212fc97-2de0-45a8-99a3-0b57aa4a9b05-master.m3u8https://video.igem.org/videos/embed/hDK1q83pPVT2PDLKPCC2S37500522025-10-15T16:17:47.002ZYES2025 PresentationsNOhttps://video.igem.org/w/oWA6BnYVgq8qcwEaFbGj9ehttps://video.igem.org/lazy-static/thumbnails/2e6de999-05ea-4f19-8b11-e2da8d31370c.jpgHWFLA-Beijing: Bioinformatics-Driven Optimization of Plastic-Degrading Enzyme Ac... (2025) - Team...**Title:** Bioinformatics-Driven Optimization of Plastic-Degrading Enzyme Activity **Description:** Plastic pollution has become a global environmental challenge, yet existing plastic degradation technologies suffer from low efficiency and are difficult to scale up. To address this issue, this project aims to screen and engineer high-efficiency plastic-degrading enzymes from microbial sources, construct optimized enzyme genes using synthetic biology approaches, and validate their practical effectiveness in plastic degradation. Through large-scale screening of microbial plastic-degrading enzymes, combined with bioinformatics and gene optimization strategies, this research seeks to enhance degradation efficiency and provide novel approaches for the bioremediation of plastic pollution. [Wiki](https://2025.igem.wiki/hwfla-beijing) | [Official Page](https://teams.igem.org/5748)https://static.igem.org/peertube/streaming-playlists/hls/b9c83a19-8dbd-4b31-9025-1f1f55664de5/7e9da9e9-7fb9-455c-b7ef-165e8de2e035-master.m3u8https://video.igem.org/videos/embed/oWA6BnYVgq8qcwEaFbGj9e743072025-10-15T16:13:37.236ZYES2025 PresentationsNOhttps://video.igem.org/w/42mUKq5FVtdUfbmg4mmG4Uhttps://video.igem.org/lazy-static/thumbnails/aa668c5d-c676-4bd5-abaf-b211d82e2e22.jpgHUBU-WuHan: CML2-Powered: A Niche-Adaptive Biosensor for Precise Arsenic Detecti... (2025) - Team...**Title:** CML2-Powered: A Niche-Adaptive Biosensor for Precise Arsenic Detection in Rice Paddies **Description:** To address the threats posed by arsenic ions (As³⁺) to the environment and human health, we have launched an innovative project based on synthetic biology. Our goal is to develop a new-type and high-efficiency biosensor that can accurately detect arsenic ions in water and convert concentration signals into intuitive fluorescent signals. We present the "Rice Endophyte Arsenic Biosensor". This project utilizes a newly discovered rice endophyte species—Cupriavidus sp. CML2, and its unique ArsR protein serves as the arsenic ion-sensing element. We couple the ArsR protein with a green fluorescent protein (GFP) reporting system, enabling it to specifically recognize arsenic ions and convert the concentration signals of arsenic ions into quantifiable green fluorescent signals. To further enhance the sensor's sensitivity and signal stability, we have designed a brand-new sfGFP self-assembly module. This module can reduce the expression of background signals, thereby significantly improving the signal-to-noise ratio. This ensures that the sensor can provide clear and reliable detection results even in environments with low arsenic concentrations. Our project aims to create a rapid, low-cost, and easy-to-operate arsenic biosensor, providing a promising solution for environmental monitoring and drinking water safety. This sensor not only leverages the unique advantages of the new species but also improves sensing performance through innovative module design, laying a foundation for future research on bioremediation and environmental monitoring. [Wiki](https://2025.igem.wiki/hubu-wuhan) | [Official Page](https://teams.igem.org/5621)https://static.igem.org/peertube/streaming-playlists/hls/187c0bb0-70e3-4461-bad9-4cea7a0b0582/d57b9ead-22e9-4988-8117-d102a072a3b0-master.m3u8https://video.igem.org/videos/embed/42mUKq5FVtdUfbmg4mmG4U8860142025-10-15T16:23:46.276ZYES2025 PresentationsNOhttps://video.igem.org/w/kyNd1ivEk4H87zBs7Ev4h7https://video.igem.org/lazy-static/thumbnails/7f71cef5-e7e0-4745-80ad-feb356f6628e.jpgUCS-X: Research on the Application and Combined Effects of Papain Isoenzymes in ... (2025) - Team...**Title:** Research on the Application and Combined Effects of Papain Isoenzymes in Skincare Products **Description:** Our project aims to enhance skincare formulations through the utilization of isoenzymes derived from papain, a cysteine protease renowned for its gentle exfoliating and moisturizing properties. Papain functions by breaking down keratin proteins in the stratum corneum, thereby facilitating the removal of dead skin cells and promoting skin regeneration. Compared to conventional acid-based peels, papain offers a far gentler and more biocompatible alternative for exfoliation. To develop superior enzymatic skincare agents, our research focused on identifying papain isoenzymes that exhibit optimal activity across diverse skin types and pH conditions. Using NCBI BLAST, genes with 50%-80% sequence similarity to papain were selected as candidate isoenzymes. Structural modeling of these candidates was then performed via AlphaFold to evaluate and prioritize enzymes with favorable active site characteristics. Ultimately, five cysteine proteases were chosen for their promising suitability in skincare applications: those derived from Abrus precatorius, Actinidia eriantha, Cicer arietinum, Cajanus cajan, and papain itself. These enzymes are expected to act synergistically to enhance the efficacy, stability, and safety of enzymatic skincare products. [Wiki](https://2025.igem.wiki/ucs-x) | [Official Page](https://teams.igem.org/5764)https://static.igem.org/peertube/streaming-playlists/hls/9e71e947-7997-4aba-be33-3003174a36ba/f78fa3b1-b6a5-402d-bb58-0648d16012aa-master.m3u8https://video.igem.org/videos/embed/kyNd1ivEk4H87zBs7Ev4h79030232025-10-15T16:24:24.554ZYES2025 PresentationsNOhttps://video.igem.org/w/qxaRsjSwMNDP3ZpBoA6so6https://video.igem.org/lazy-static/thumbnails/7f5c9da3-7646-4409-8902-f5103b693898.jpgUAlberta: AshBloom: Work with nature, instead of against it. (2025) - Team Presentation [English]**Title:** AshBloom: Work with nature, instead of against it. **Description:** AshBloom offers a new paradigm a bio-based, biodegradable firefighting foam built on microbial rhamnolipids. [Wiki](https://2025.igem.wiki/ualberta) | [Official Page](https://teams.igem.org/5798)https://static.igem.org/peertube/streaming-playlists/hls/c6b574e5-3edb-4270-ba3a-8f1f3d079291/50c63f19-350d-4d40-89b2-a693820cad92-master.m3u8https://video.igem.org/videos/embed/qxaRsjSwMNDP3ZpBoA6so65600182025-10-15T16:19:16.935ZYES2025 PresentationsNOhttps://video.igem.org/w/82rykbDqy8XQM5KqMJwpK5https://video.igem.org/lazy-static/thumbnails/129316c1-7b45-4cba-b895-9b903f1dae01.jpgUMass Amherst: CadmiCatch - Where Synthetic Biology Combats Heavy Metal Soil Con... (2025) - Team...**Title:** CadmiCatch - Where Synthetic Biology Combats Heavy Metal Soil Contamination **Description:** UMass Amherst iGEM presents CadmiCatch - where synthetic biology combats heavy metal soil contamination! Our project aims to tackle global cadmium contamination through bioremediation. We make use of computational and experimental methods to design genetic circuits, and engineer soil bacteria to take up cadmium respectively. We wish to make food safer and protect communities impacted by agricultural pollution by providing a step towards sustainable heavy metal contamination solutions. [Wiki](https://2025.igem.wiki/umass-amherst) | [Official Page](https://teams.igem.org/5950)https://static.igem.org/peertube/streaming-playlists/hls/38e376f7-7b4a-412f-ae44-a01e5cbbd1ee/28780fc1-0242-4164-a143-8389a37575f1-master.m3u8https://video.igem.org/videos/embed/82rykbDqy8XQM5KqMJwpK57970152025-10-15T16:48:55.004ZYES2025 PresentationsNOhttps://video.igem.org/w/6hweT2YMyUpgNL7j9eFUo7https://video.igem.org/lazy-static/thumbnails/3f480d75-6060-4863-a729-cd3ae2e8aab8.jpgHDKWA: Microbial Synthesis of the Healthy Sweetener Erythritol Using Dual Substr... (2025) - Team...**Title:** Microbial Synthesis of the Healthy Sweetener Erythritol Using Dual Substrates **Description:** Excessive sugar intake poses significant health risks, and the discovery and rational use of sweeteners help reduce sugar content in food products. Erythritol, as a natural sweetener, exhibits unique physicochemical properties—it avoids the aforementioned health hazards while offering additional benefits such as low caloric value, high stability, and no gastrointestinal discomfort. For erythritol production, chemical synthesis methods are economically unviable, leading to growing research focus on microbial biosynthesis. Current studies primarily aim to improve erythritol yield and production efficiency. Addressing this challenge, our work first enhances and integrates the erythritol biosynthesis pathway in bacteria through molecular biology techniques. Additionally, we introduce a glycerol metabolic pathway, which serves dual purposes: reducing byproduct formation and expanding the utilization of low-cost substrates by redirecting carbon flux toward erythritol production. Glycerol, an abundant and low-value renewable resource, has recently gained attention as a promising substrate for erythritol fermentation. This study explores its potential to enable cost-effective and sustainable erythritol biosynthesis. [Wiki](https://2025.igem.wiki/hdkwa) | [Official Page](https://teams.igem.org/5763)https://static.igem.org/peertube/streaming-playlists/hls/2acc3ab0-857a-4a58-8c3c-c47f2fcc3eba/75d8a371-320c-40c4-b18a-a9d2dbd8445f-master.m3u8https://video.igem.org/videos/embed/6hweT2YMyUpgNL7j9eFUo77520102025-10-15T16:21:14.004ZYES2025 PresentationsNOhttps://video.igem.org/w/jjNGArVrUsJQQdLn4WYdLGhttps://video.igem.org/lazy-static/thumbnails/f9dce900-8c31-441d-a5e5-2d8509c80d4d.jpgUAM: RSAV (2025) - Team Presentation [English]**Title:** RSAV **Description:** Our iGEM team is developing a recombinant antivenom produced in Pichia pastoris as an alternative to scorpion poisoning in Mexico. Science, biotechnology, and social commitment for a safer and more sustainable future. [Wiki](https://2025.igem.wiki/uam) | [Official Page](https://teams.igem.org/5609)https://static.igem.org/peertube/streaming-playlists/hls/9464a9df-e655-4b6a-ab89-f7e9081f9010/0e73ff45-9e51-4c20-bbd3-e1b4488506ce-master.m3u8https://video.igem.org/videos/embed/jjNGArVrUsJQQdLn4WYdLG8150152025-10-15T16:32:58.691ZYES2025 PresentationsNOhttps://video.igem.org/w/j1M9wapPWU6Nmnq1zGAKPXhttps://video.igem.org/lazy-static/thumbnails/6433985e-02bf-4419-96fc-4c478a19219f.jpgHKUST: Slupeer: Removal of Cadmium From Sludge (2025) - Team Presentation [English]**Title:** Slupeer: Removal of Cadmium From Sludge **Description:** Cadmium is a severe heavy metal pollutant in several regions. Its effect as a pollutant threatens food safety, notably causing 14-17% of global cropland to be affected. Among sources of cadmium pollution, sludge is particularly detrimental with exacerbated consequences from downstream damage to human health and ecosystems. Within the sludge, there only exists trace yet still harmful concentrations of sludge, causing general heavy metal remediation methods to be ineffective against it. Simultaneously, it is the most significant ecological risk amongst heavy metals. Our team targets sludge and removes the pollutant cadmium by engineering Pseudomonas putida to express metallothioneins on its surface. Our team has introduced this metallothionein to the iGEM Registry and characterized it through Wet Lab Data and Dry Lab modeling. Supported by extensive Human Practices work, our team hopes to demonstrate the potential of our work and it as a promising and sustainable heavy metal bioremediation method. [Wiki](https://2025.igem.wiki/hkust) | [Official Page](https://teams.igem.org/5546)https://static.igem.org/peertube/streaming-playlists/hls/91e05192-a387-4da5-8df7-2a66a53fa659/2eafd6aa-2e1f-484b-98c6-3d58c489156f-master.m3u8https://video.igem.org/videos/embed/j1M9wapPWU6Nmnq1zGAKPX8550242025-10-15T17:16:06.618ZYES2025 PresentationsNOhttps://video.igem.org/w/5qV65bdqYjbEQWsem4zotRhttps://video.igem.org/lazy-static/thumbnails/d6dac715-3a10-499f-803b-d4fef836f076.jpgKCL-UK: KCL Infecheck (2025) - Team Presentation [English]**Title:** KCL Infecheck **Description:** One disease. Two billion lives affected. Tuberculosis (TB) remains humanity’s most persistent infectious killer - and its hidden form, latent TB, can strike without warning. Yet current tests are slow, costly, and often out of reach for the communities hit hardest. Infecheck addresses the problem with early detection of LTB. We are developing a cheap, paper-strip diagnostic that uses a simple finger-prick blood sample to detect upregulated miRNAs specific to LTB. We explored two promising methods for exosomal miRNA detection: Toehold Switches and CCDR. We envision our end-product to be in the form of a lateral flow test and to use microfluidics as the extraction method. The test delivers easy-to-read results without requiring lab-based equipment. Our approach prevents the progression from latent to active TB, therefore reducing patient suffering and TB spread. INFECHECK - because we can’t cure what we can’t find. [Wiki](https://2025.igem.wiki/kcl-uk) | [Official Page](https://teams.igem.org/5962)https://static.igem.org/peertube/streaming-playlists/hls/23df1f15-89e7-4364-b7d4-7fb708f1be7f/be09b93f-241a-44ea-8fcc-0e6939e94d17-master.m3u8https://video.igem.org/videos/embed/5qV65bdqYjbEQWsem4zotR8920292025-10-15T16:34:39.964ZYES2025 PresentationsNOhttps://video.igem.org/w/9fL2v67Kn3KwczfHZMpGdrhttps://video.igem.org/lazy-static/thumbnails/2367dd8a-eb80-4b55-88b9-32e9ad2b4df1.jpgUZurich: TRACE - Redifining STI testing through portable, paper-based diagnostics (2025) - Team P...**Title:** TRACE - Redifining STI testing through portable, paper-based diagnostics **Description:** Our iGEM Project TRACE tackles the global challenge of sexually transmitted infections (STIs) by making testing more accessible and thereby increasing testing rates. Using RPA and DNA hybridization, or alternatively CRISPR, TRACE takes the first step toward a paper-based STI self-test, empowering people to take control of their sexual health. [Wiki](https://2025.igem.wiki/uzurich) | [Official Page](https://teams.igem.org/5686)https://static.igem.org/peertube/streaming-playlists/hls/42d8a76b-1337-4825-8f04-9010a5e148b9/22f7cdbb-abb6-419b-aebb-02d8c976345c-master.m3u8https://video.igem.org/videos/embed/9fL2v67Kn3KwczfHZMpGdr8900422025-10-15T16:32:04.033ZYES2025 PresentationsNOhttps://video.igem.org/w/w6o5afVpvXhgfsCRwfmKs8https://video.igem.org/lazy-static/thumbnails/f0249577-f2b5-4a51-b7f3-27d29e06cb8e.jpgGU-Frankfurt: SPROUT - Smart Peptide Release On Unique Triggers (2025) - Team Presentation [English]**Title:** SPROUT - Smart Peptide Release On Unique Triggers **Description:** **SPROUT - Smart Peptide Release On Unique Triggers** Fungal pathogens pose a major threat to agriculture, causing significant economic losses and strain on global food systems. Climate change intensifies these challenges by creating warmer, more humid conditions that favor fungal infections. Conventional fungicides often harm beneficial organisms, disrupt ecosystems, and drive pathogen resistance, threatening long-term food security. We propose a more precise and sustainable alternative. Using a modular sensor system with a genetic AND-gate, our engineered bacteria detect pathogen-specific signals tied to physiology and secretome, releasing antimicrobial peptides (AMPs) only when needed. This ensures targeted action while minimizing off-target effects. SPROUT is a scalable, precision-based platform for next-generation plant protection. Its modular design allows easy adaptation to diverse crops and pathogens, enabling efficient, on-demand AMP release. By combining specificity, adaptability, and sustainability, SPROUT offers a practical and innovative approach to strengthening agricultural resilience against fungal diseases. **[SPROUT Wiki](https://2025.igem.wiki/gu-frankfurt/description)** **[iGEM GU-Frankfurt](https://igem-ffm.de/)** [Wiki](https://2025.igem.wiki/gu-frankfurt) | [Official Page](https://teams.igem.org/5628)https://static.igem.org/peertube/streaming-playlists/hls/f3b27b17-98b1-4759-8236-66ba0e74c3f7/18ce828c-53df-49ec-aba6-cf91c7455a8c-master.m3u8https://video.igem.org/videos/embed/w6o5afVpvXhgfsCRwfmKs89030362025-10-15T16:40:29.713ZYES2025 PresentationsNOhttps://video.igem.org/w/gvUcR4tENKew5kSBi2QbUvhttps://video.igem.org/lazy-static/thumbnails/f99307bf-eae1-44be-8688-814f5480ce62.jpgCUHK-Shenzhen: GLU-FIRE (2025) - Team Presentation [English]**Title:** GLU-FIRE **Description:** Current cancer therapies are limited by chemotherapy resistance, target mutations in precision drugs and severe side effects. As synthetic biology develops rapidly in recent decades, bacterial therapy has emerged as a promising alternative. Meanwhile, ferroptosis—a form of regulated cell death driven by iron-dependent lipid peroxidation—has shown significant potential based on previous studies. Our study integrates bacterial therapy with ferroptosis induction by engineering Escherichia coli to overexpress glutamate specifically in tumor microenvironments. Glutamate can disrupt cellular redox homeostasis by depleting glutathione and accumulating lipid peroxides, thus selectively triggering ferroptosis in tumor cells, with colorectal cancer involved in this study. This approach combines synthetic biology with the potency of ferroptosis, aiming to enhance therapeutic efficacy while minimizing off-target effects through microenvironment-responsive expression. We anticipate that it will provide new insights into bacterial cancer treatments, for innovative combination therapies that improve tumor targeting, reduce side effects, and achieve better clinical outcomes. [Wiki](https://2025.igem.wiki/cuhk-shenzhen) | [Official Page](https://teams.igem.org/5926)https://static.igem.org/peertube/streaming-playlists/hls/7da5d23c-7859-42ac-85f0-275fb84dc63d/426a977f-93c4-468e-8f2e-d22a0b027ecd-master.m3u8https://video.igem.org/videos/embed/gvUcR4tENKew5kSBi2QbUv9000432025-10-15T16:37:14.208ZYES2025 PresentationsNOhttps://video.igem.org/w/xjBRHRz7MMkFWuXjCe5LRkhttps://video.igem.org/lazy-static/thumbnails/4b2772ff-cb08-4cfa-acee-54dc917955a7.jpgUtrecht: GutFeeling - Fishing for Solutions (2025) - Team Presentation [English]**Title:** GutFeeling - Fishing for Solutions **Description:** Meet GutFeeling - the living medicine factory engineered by iGEM Utrecht 2025! Take a look at our video and descover highlights of our work, including our experiments' results, education activities and human practices initiatives. [Wiki](https://2025.igem.wiki/utrecht) | [Official Page](https://teams.igem.org/5795)https://static.igem.org/peertube/streaming-playlists/hls/fda4c8bd-de35-439a-9209-e642dad1184d/d0c70f92-36d2-4550-a8e4-241f4eb60090-master.m3u8https://video.igem.org/videos/embed/xjBRHRz7MMkFWuXjCe5LRk7790142025-10-15T16:19:37.615ZYES2025 PresentationsNOhttps://video.igem.org/w/rugZdJifEyW6Wf6d4wjNyQhttps://video.igem.org/lazy-static/thumbnails/c3484ed9-1012-4156-aaa8-3e7b65605904.jpgSubCat-Peking: Production of Natural Food Preservatives Containing Lysozyme and ... (2025) - Team...**Title:** Production of Natural Food Preservatives Containing Lysozyme and Antimicrobial Peptides Using Synthetic Biology **Description:** With the continuous growth of the global population, food safety has gradually become a key concern worldwide. Although traditional chemical preservatives can effectively extend food shelf life, their widespread use has raised numerous health concerns. Consequently, the development of natural, green, and non-toxic preservatives has emerged as a crucial trend in the food industry. Lysozyme and antimicrobial peptides (AMPs), as natural antibacterial components, have become research hotspots in food preservation due to their excellent antimicrobial properties and high safety profile. Lysozyme functions by catalyzing the hydrolysis of glycosidic bonds in bacterial cell walls, primarily targeting Gram-positive bacteria. Antimicrobial peptides, on the other hand, disrupt bacterial cell membrane structures, inhibiting pathogen growth with broad-spectrum antibacterial activity.This study aims to explore the combined preservative effects of lysozyme and antimicrobial peptides in food applications. The goal is to develop a green, safe, and natural food preservation technology. [Wiki](https://2025.igem.wiki/subcat-peking) | [Official Page](https://teams.igem.org/5742)https://static.igem.org/peertube/streaming-playlists/hls/ce6724e4-d416-42ae-9d5f-110472adf0f8/c853bf05-3f49-4f3a-ae8d-2912ba00ecc0-master.m3u8https://video.igem.org/videos/embed/rugZdJifEyW6Wf6d4wjNyQ7810172025-10-15T16:25:17.604ZYES2025 PresentationsNOhttps://video.igem.org/w/299T45x87H1CVFDpSGccmPhttps://video.igem.org/lazy-static/thumbnails/ee788038-186d-49e5-8c99-db8e219b8a51.jpgFHNW: SwissCas Team: A Modular CRISPR-Cas12–Gold Nanoparticle System for dsDNA D... (2025) - Team...**Title:** SwissCas Team: A Modular CRISPR-Cas12–Gold Nanoparticle System for dsDNA Detection **Description:** Presentation Video of the 2025 iGem Team from FHNW called SwissCas. The project "A Modular CRISPR-Cas12–Gold Nanoparticle System for dsDNA Detection" is summarised in the video. [Wiki](https://2025.igem.wiki/fhnw) | [Official Page](https://teams.igem.org/5701)https://static.igem.org/peertube/streaming-playlists/hls/093c8fbb-67d1-4c38-98a3-bc44771455fb/a76872b0-7176-4a0d-8cf7-8c1e73f317b0-master.m3u8https://video.igem.org/videos/embed/299T45x87H1CVFDpSGccmP8230312025-10-15T16:27:23.566ZYES2025 PresentationsNOhttps://video.igem.org/w/3oLNQjsGrGT8meWRsv8cz8https://video.igem.org/lazy-static/thumbnails/55e340d2-6d70-4b4c-89bb-fa0f49762bc8.jpgHAOLVE-Nanjing: REEnaisance: Reimagining Rare Earth Element Extraction Through B... (2025) - Team...**Title:** REEnaisance: Reimagining Rare Earth Element Extraction Through Bioabsorption **Description:** Rare earth elements (REEs), often referred to as “industrial vitamins”, possess unique physicochemical properties that make them vital components in high-tech industries including optics, electronics, and magnetism. However, conventional extraction and separation techniques—such as sulfate roasting, alkali leaching, and ammonium salt leaching—are associated with severe environmental pollution and ecological damage. In response, microbial bioleaching and biosorption using bacteria represent a promising green alternative, offering an eco-friendly, cost-effective, and sustainable strategy for REE recovery. In this project, we first validated the REEs adsorption capacity of Pseudomonas kunmingensis (P. kunmingensis) HL22-2T, and subsequently engineered the strain with key genes involved in polyphosphate metabolism. By reprogramming its phosphate regulatory network, we aim to enhance the strain’s ability to adsorb REEs, aligning with the principles of sustainable biotechnology. [Wiki](https://2025.igem.wiki/haolve-nanjing) | [Official Page](https://teams.igem.org/5694)https://static.igem.org/peertube/streaming-playlists/hls/136040fb-d2a9-4da7-b25b-32134e200e75/77601182-4acb-475d-9023-5412ada293e5-master.m3u8https://video.igem.org/videos/embed/3oLNQjsGrGT8meWRsv8cz87580102025-10-15T16:25:53.893ZYES2025 PresentationsNOhttps://video.igem.org/w/rbvaUXEHr6KPK9WtWQa6mLhttps://video.igem.org/lazy-static/thumbnails/603db096-78cb-459b-9ae1-41317ead687c.jpgSubCat-Union: Production of 3'-Sialyllactose (3'-SL) Using Soy Whey (2025) - Team Presentation [E...**Title:** Production of 3'-Sialyllactose (3'-SL) Using Soy Whey **Description:** Based on synthetic biology principles, this project aims to construct an E. coli that uses low-cost soy whey as a fermentation medium and leverages the natural galactose in soy whey to achieve an auto-induction expression system. The experiment is mainly divided into the following three parts. First of all, at present, E.coli can't use carbohydrates (such as sucrose and stachyose) in soy whey as carbon sources, which makes it difficult to use this rich food industry by-product as fermentation medium. Secondly, we want to construct a self-induced protein expression system. Based on this system, bacteria can directly use galactose in the culture medium as an inducer, thus spontaneously inducing the expression of downstream proteins. Finally, we need to transfer the synthesis module of 3'-SL into plasmid, so that bacteria can synthesize 3'-SL protein in soy whey. [Wiki](https://2025.igem.wiki/subcat-union) | [Official Page](https://teams.igem.org/5741)https://static.igem.org/peertube/streaming-playlists/hls/cbebe1a4-6c73-43de-b454-8170db115e50/31e71d54-c612-48d0-a1d1-ea99e36bcccb-master.m3u8https://video.igem.org/videos/embed/rbvaUXEHr6KPK9WtWQa6mL750072025-10-15T16:22:49.744ZYES2025 PresentationsNOhttps://video.igem.org/w/f6QjsXTw6Ms1VWBPjkpRyehttps://video.igem.org/lazy-static/thumbnails/ed6fd85c-0291-4246-befa-0de6f6d933ef.jpgUESTC-China: Re-PEAt：Recycling Ethylene glycol to PolyEsters And terephthalate t... (2025) - Team...**Title:** Re-PEAt：Recycling Ethylene glycol to PolyEsters And terephthalate to p-coumaric acid **Description:** The UESTC-China team has developed a platform—RE-PEAt—that closes the PET loop by coupling enzymatic depolymerization with value-added biosynthesis. Using magnetically immobilized PETase and Tfca, we synergistically hydrolyze PET into ethylene glycol (EG) and terephthalic acid (TPA). Leveraging bioinformatics and synthetic biology, we identified key genes and engineered Escherichia coli to grow on EG as the sole carbon source. This alleviates EG’s competitive inhibition of PET hydrolases and mitigates the adverse effects of TPA accumulation. Downstream, RE-PEAt converts EG into biodegradable polyesteramide and upgrades TPA into the high-value aromatic p-coumaric acid, creating sustainable product streams that feed back into green supply chains. In addition, we constructed a colorimetric biosensor to monitor EG concentrations in real time during cultivation, providing reliable guidance for both the PET hydrolysis and EG conversion stages. By combining reusable, magnetically recoverable biocatalysts with microbial upgrading, RE-PEAt offers an integrated, practical framework for PET upcycling—from depolymerization to the regeneration of materials and chemicals. [Wiki](https://2025.igem.wiki/uestc-china) | [Official Page](https://teams.igem.org/5979)https://static.igem.org/peertube/streaming-playlists/hls/72306ff5-566b-442c-996b-29f7d6ef2f79/6d835faf-652c-48d5-87f7-2d602f00137a-master.m3u8https://video.igem.org/videos/embed/f6QjsXTw6Ms1VWBPjkpRye9025262025-10-15T16:52:40.886ZYES2025 PresentationsNOhttps://video.igem.org/w/2WjYYHmTJTacAd5fxHKzrqhttps://video.igem.org/lazy-static/thumbnails/bd4507ad-f249-43eb-a9f5-256ef0b2bd35.jpgLINKS-China: straw's second life in fashion (2025) - Team Presentation [English]**Title:** straw's second life in fashion **Description:** Straw, the dry stalks of cereal crops left after harvest, represents a massive global agricultural by-product with approximately 5.3 billion tons generated annually worldwide. 2025 LINKS-China has developed an integrated chemical and enzymatic process to extract high-purity cellulose from straw. We employed Pichia pastoris to express enzymes— Laccase, VP and LPMO—and utilized a yeast surface displayed protein-scaffold enabling synergistic enzymatic action for degradation of hemicellulose and lignin. We successfully produced Lyocell fibers from extracted corn straw cellulose. We engineered two recombinant proteins: HBP from squid beak and EV1 from bagworm silk，for fiber enhancing. The fiber with EV1 protein achieved a remarkable tensile strength of 2.56 cN/dtex, meeting the requirements for textile applications. Through comprehensive interviews with farmers, textile industry professionals, and fashion designers, we have developed a complete business plan. We envision that these vegan, sustainable, and biodegradable fibers will pioneer a green revolution. [Wiki](https://2025.igem.wiki/links-china) | [Official Page](https://teams.igem.org/5714)https://static.igem.org/peertube/streaming-playlists/hls/0faf0023-b59b-4cee-bdd8-6dd44ecc178e/9bba8d3c-ff30-4377-a630-90e959682776-master.m3u8https://video.igem.org/videos/embed/2WjYYHmTJTacAd5fxHKzrq8380172025-10-15T16:43:01.637ZYES2025 PresentationsNOhttps://video.igem.org/w/gbubm58dC2fquvCqeLVNW6https://video.igem.org/lazy-static/thumbnails/5723d43b-a858-4e2f-b5f3-a9864966032d.jpgUNC-ChapelHill: Fluoro Free: How UNC Is Engineering New Ways to Reduce PFAS Bioa... (2025) - Team...**Title:** Fluoro Free: How UNC Is Engineering New Ways to Reduce PFAS Bioaccumulation **Description:** PFAS, or “forever chemicals” pose a huge threat to human health, and with exposure rates through the roof, a solution for the bioaccumulation is desperately needed. UNC iGEM is tackling this by engineering a probiotic to uptake PFAS from the gut microbiome so that it can be naturally excreted from the body. [Wiki](https://2025.igem.wiki/unc-chapelhill) | [Official Page](https://teams.igem.org/5788)https://static.igem.org/peertube/streaming-playlists/hls/7aefe215-b409-4f12-8cc0-4423c0726fe1/a51daea4-ebd3-46c4-ba88-b4822377db55-master.m3u8https://video.igem.org/videos/embed/gbubm58dC2fquvCqeLVNW68880262025-10-15T16:43:42.458ZYES2025 PresentationsNOhttps://video.igem.org/w/sPqJqZ9EuLKQgXYQnzSZ79https://video.igem.org/lazy-static/thumbnails/6bf4a339-070a-4230-bf7e-c1668cbffc4b.jpgSR-Shenzhen: Turning Bacteria into Time Fighters: Sustainable NMN Production wit... (2025) - Team...**Title:** Turning Bacteria into Time Fighters: Sustainable NMN Production with Synthetic Biology **Description:** Current production methods face challenges such as high costs, harsh reaction conditions, complex processes, and environmental burdens. Using synthetic biology, we redesigned E. coli by introducing the genes NiaP, nadV, PnuC, and BaPRS, enabling efficient NMN production. Considering gender differences: for men, we engineered E. coli to produce GLP-1, which is combined with NMN to make capsules; for women, we engineered E. coli to produce glutathione, developed into oral solutions and antioxidant facial masks. Through this diversified design, our solution makes it easier for people to achieve healthier and more vibrant lives. [Wiki](https://2025.igem.wiki/sr-shenzhen) | [Official Page](https://teams.igem.org/5985)https://static.igem.org/peertube/streaming-playlists/hls/d92ccdc0-7b8c-4e2e-98f1-5849eeceec68/66d5f988-00a2-4d44-885b-4450fea492a2-master.m3u8https://video.igem.org/videos/embed/sPqJqZ9EuLKQgXYQnzSZ799030312025-10-15T16:38:42.097ZYES2025 PresentationsNOhttps://video.igem.org/w/n7EvL3d4mCXLcCv6UkyhjKhttps://video.igem.org/lazy-static/thumbnails/e3e62418-6816-4a7d-8672-819750e91858.jpgCCU-Taiwan: AGEs ROBBER: A Mission to Restore Steps and Reclaim Futures (2025) - Team Presentatio...**Title:** AGEs ROBBER: A Mission to Restore Steps and Reclaim Futures **Description:** Every 20 seconds, a limb is lost to diabetes. CCU Taiwan’s AGEs ROBBER tackles the root cause of diabetic foot ulcers by targeting Advanced Glycation End-products (AGEs). Through a dual strategy, a sRAGE-based wound-healing patch and a preventive foot-monitoring device, we aim to restore healing for today and protection for tomorrow. Science and compassion walk hand in hand, turning steps once lost into futures regained. [Wiki](https://2025.igem.wiki/ccu-taiwan) | [Official Page](https://teams.igem.org/5854)https://static.igem.org/peertube/streaming-playlists/hls/aafe1be8-6ed2-46d3-9375-bf956a1911ef/c21571f0-d5dd-4cc2-a9c7-52c9f6fe65b5-master.m3u8https://video.igem.org/videos/embed/n7EvL3d4mCXLcCv6UkyhjK6480242025-10-15T17:52:04.042ZYES2025 PresentationsNOhttps://video.igem.org/w/jrQexxkL6Tbv1dHx5S48Kthttps://video.igem.org/lazy-static/thumbnails/a04d4035-c4a1-4a3c-9de1-989ac729b965.jpgNU-Kazakhstan: LUCID: Lung Cancer Integrated Diagnostics (2025) - Team Presentation [English]**Title:** LUCID: Lung Cancer Integrated Diagnostics **Description:** LUCID is a two-component diagnostic tool for the early detection of non-small cell lung cancer (NSCLC), consisting of biosensor - OncoSense and AI model - Cancerna. OncoSense is a optical fiber biosensor for the detection of biomarkers AGR2 and CEA elevated in patients with NSCLC at early stages. Optical fiber base allows for the immobilization of binding ligands, as antibodies or aptamers. Cheap cost of fabrication and rapid detection time make OncoSense promising novel tool for the cancer detection. Cancerna is an AI assistant tool for the analysis of computer tomography (CT) scans. Analyzing CT scans as the 3D image via Lung-RADS implemented classification, Cancerna becomes the everyday tool for the radiologists. Additionally, to explain and justify its output Fuzzy logic is implemented. LUCID has its impact on diagnostic world not only by presenting a new way of diagnostics, but also by improving the work experience with already established ones. LUCID wouldn't become possible if not 50+ experts in the fields of biosensors, AI, oncology, business who gave their honest feedback for our further development and refining. Considering the LUCID as the commercial product, business models for both OncoSense and Cancerna were developed. LUCID is the work done by people driving the science. To have an impact for the new generation of scientists we organized such educational events such us Summer Camp, Silent Breath; co-organized Second NU Annual Research Conference; developed educational board game Biosis and visual novel Biolab Z. We believe that LUCID is the right step for humanity to solve the problem of late cancer diagnosis. [Wiki](https://2025.igem.wiki/nu-kazakhstan) | [Official Page](https://teams.igem.org/5896)https://static.igem.org/peertube/streaming-playlists/hls/955fd0a9-a91f-44d3-bef9-3f008ac6682d/e769b2c0-d23d-4a09-8dfc-390d4bb4a0eb-master.m3u8https://video.igem.org/videos/embed/jrQexxkL6Tbv1dHx5S48Kt9020132025-10-15T17:32:03.991ZYES2025 PresentationsNOhttps://video.igem.org/w/tN49P2Yj2Ske9vY98eA1uBhttps://video.igem.org/lazy-static/thumbnails/23f4804d-8d38-49cc-bcea-4479908d2e91.jpgSubCat-HS: Helicobacter pylori Nanobody Therapy (2025) - Team Presentation [English]**Title:** Helicobacter pylori Nanobody Therapy **Description:** Helicobacter pylori (H. pylori) infection can lead to severe health complications. Current treatments primarily rely on antibiotics, but increasing resistance due to overuse has resulted in frequent therapeutic failures, potentially progressing to more serious conditions. Urease is a critical factor for H. pylori colonization and pathogenicity in the stomach, making its inhibition essential for reducing infection risks. This study focuses on constructing a gene expression system for recombinant nanobodies targeting the H. pylori urease subunit (UreB) and exploring their production in food-grade probiotic bacteria. By delivering these nanobodies via live probiotics, the approach aims to achieve direct and precise prevention and control of H. pylori infection. The research establishes a solid foundation for developing immune-based therapies against H. pylori, demonstrating significant innovation and application potential. [Wiki](https://2025.igem.wiki/subcat-hs) | [Official Page](https://teams.igem.org/5735)https://static.igem.org/peertube/streaming-playlists/hls/e114e651-175f-417b-b554-42d7548097fb/a02481db-19fc-4aa0-8422-35ceea396bc4-master.m3u8https://video.igem.org/videos/embed/tN49P2Yj2Ske9vY98eA1uB8360132025-10-15T16:42:15.406ZYES2025 PresentationsNOhttps://video.igem.org/w/nPmYx4A3Ti5wtEmWbS2UTkhttps://video.igem.org/lazy-static/thumbnails/25bdda02-2854-4ff8-967a-baa3fc507a4e.jpgNU Boston: FloraGuard (2025) - Team Presentation [English]**Title:** FloraGuard **Description:** In this video the NU Boston team outlines the problem, inspiration, methods, analysis, and community outreach efforts we explored across our multiple sub-teams to bring our project, FloraGuard, to life! We start by identifying the negative impacts wildfires and the need for a safer and more proactive solution. We then dive deep into the experimentation we conducted in the wet-lab before giving synopses of both our dry-lab and human practices endeavors as well. We hope you enjoy learning about our project just as much as we enjoyed making it for you. Thank you! [Wiki](https://2025.igem.wiki/nu-boston) | [Official Page](https://teams.igem.org/5823)https://static.igem.org/peertube/streaming-playlists/hls/b0accb92-2d8d-474a-a54f-2e533f9905f9/cc5bd83a-a432-4f6f-afd7-6d5dada8ec6b-master.m3u8https://video.igem.org/videos/embed/nPmYx4A3Ti5wtEmWbS2UTk8990222025-10-15T16:44:09.010ZYES2025 PresentationsNOhttps://video.igem.org/w/5tWK93rLyw24uCWNetA5iehttps://video.igem.org/lazy-static/thumbnails/3b18844f-b47f-4a4e-b0f2-e036d76e3c57.jpgQueens-Canada: QGEM-Canada: MacQS - Foundations for an AHL-responsive genetic ci... (2025) - Team...**Title:** QGEM-Canada: MacQS - Foundations for an AHL-responsive genetic circuit for eukaryotic expression and biofilm reduction **Description:** MacQS is a mammalian-compatible quorum sensing system developed by Queen’s iGEM 2025. Our project aims to engineer immune cells capable of detecting Pseudomonas aeruginosa communication signals and responding by releasing biofilm-degrading enzymes. Through computational modeling, enzyme synergy assays, and lentiviral circuit design, we present a novel therapeutic approach to combat chronic biofilm-associated infections. [Wiki](https://2025.igem.wiki/queens-canada) | [Official Page](https://teams.igem.org/5801)https://static.igem.org/peertube/streaming-playlists/hls/244b5f9c-2e6f-4e66-b1ee-0a3bab61b217/681ea184-259c-4ff0-815f-36dffd710ef0-master.m3u8https://video.igem.org/videos/embed/5tWK93rLyw24uCWNetA5ie9010392025-10-15T16:45:09.365ZYES2025 PresentationsNOhttps://video.igem.org/w/rRvUrbCm5zfyzsHk2y9adHhttps://video.igem.org/lazy-static/thumbnails/c84154a0-3574-4246-b9f0-e49dfe2d9084.jpgCHINA-XJTU: De novo Design, Screening and Application of D-Tagatose-3-Epimerase ... (2025) - Team...**Title:** De novo Design, Screening and Application of D-Tagatose-3-Epimerase (DTE) for D-Allulose Production **Description:** D-Allulose, a low-calorie sugar with multiple functions, is regarded as a revolutionary natural sweetener. The synthesis of D-allulose from fructose is catalyzed by D-tagatose-3-epimerase (DTE), while the low activity and poor stability of DTE have remained key bottlenecks for industrialization of D-allulose. Our study integrated artificial intelligence models such as LigandMPNN and AlphaFold3 for the de novo design of DTE. A novel RNA-mediated fluorescence system was developed for the high-throughput screening these AI-generated variants, resulting in a novel DTE enzyme with enhanced catalytic activity. The optimized DTE was subsequently applied to the production of D-allulose and other broader societal applications. This study establishes a applicable platform based on “AI Design-Efficient Screening-Application Validation” for enzyme development. It provides a breakthrough enzyme for D-allulose production, benefiting its industrialization and broad social applications in the food and pharmaceutical. It also offers a safe sugar-alternative solution to address obesity and diabetes etc. [Wiki](https://2025.igem.wiki/china-xjtu) | [Official Page](https://teams.igem.org/5890)https://static.igem.org/peertube/streaming-playlists/hls/d15e571a-7b32-404f-b575-c6fb4b0c9b45/09188f86-4ae5-4de6-b6a8-785ba7851d57-master.m3u8https://video.igem.org/videos/embed/rRvUrbCm5zfyzsHk2y9adH8440152025-10-15T16:41:41.750ZYES2025 PresentationsNOhttps://video.igem.org/w/xudd9Q55mCgBwHWrWmPwk4https://video.igem.org/lazy-static/thumbnails/9c1a3a25-a79a-4d09-8e1e-36dff212dc6c.jpgISBICSKIS-BKK: SAUR-eus | CRISPR-Cas9 to Combat MRSA (2025) - Team Presentation [English]**Title:** SAUR-eus | CRISPR-Cas9 to Combat MRSA **Description:** Antibiotic resistance is a growing problem. With bacteria becoming more and more resistant, we decided to find a potential alternative to curing methicillin-resistant Staphylococcus aureus (MRSA) through CRISPR-Cas9 DNA Technology. Along the way, we hosted educational booths, and worked towards our goals of making science inclusive and accessible. [Wiki](https://2025.igem.wiki/isbicskis-bkk) | [Official Page](https://teams.igem.org/5683)https://static.igem.org/peertube/streaming-playlists/hls/fefba5fd-d3db-449f-a3ab-f80863109d21/acd8c0eb-949a-404e-b42b-ff88b16534b2-master.m3u8https://video.igem.org/videos/embed/xudd9Q55mCgBwHWrWmPwk45570192025-10-15T17:05:28.116ZYES2025 PresentationsNOhttps://video.igem.org/w/cyXiRTn5WUd2P7uLT46YTwhttps://video.igem.org/lazy-static/thumbnails/59406df8-f654-4ba2-a78f-fb7fda801890.jpgHK-Joint-School: PestiGuard - The Smart Aptamer Biosensor (2025) - Team Presentation [English]**Title:** PestiGuard - The Smart Aptamer Biosensor **Description:** PestiGuard is an innovative biosensor that puts food safety directly into the hands of consumers. To address the global health risks from pesticide residues, we have developed a simple, on-site detection system. At its heart are engineered bacteria containing a specialized RNA aptamer. When a specific pesticide is present, it binds to the aptamer, suppressing a fluorescent reporter gene and resulting in a dimmer glow. This provides an intuitive visual signal: brighter means safer, dimmer means contaminated. For precise results, we created companion software and hardware. A photo of the test sample is instantly analyzed, comparing the color intensity to a safety reference to display clear contamination levels. By integrating synthetic biology with smart technology, PestiGuard transforms complex lab testing into an accessible, user-friendly process, empowering everyone to make informed decisions about their food. [Wiki](https://2025.igem.wiki/hk-joint-school) | [Official Page](https://teams.igem.org/5627)https://static.igem.org/peertube/streaming-playlists/hls/5dae691e-af18-4ffa-a1f5-a35e9955ed64/e4fede43-a6c3-4ab3-b609-dc6cac656246-master.m3u8https://video.igem.org/videos/embed/cyXiRTn5WUd2P7uLT46YTw9020702025-10-15T16:47:58.645ZYES2025 PresentationsNOhttps://video.igem.org/w/h3J7qmcteXXSXKHNi2BLfphttps://video.igem.org/lazy-static/thumbnails/e79047be-20ba-475d-b9eb-d9704471388a.jpgIISER-Kolkata: ReSET: Reprogramming the Suppressive Environment of TME (2025) - Team Presentation...**Title:** ReSET: Reprogramming the Suppressive Environment of TME **Description:** Colorectal Cancer (CRC), the second leading cause of cancer deaths, lacks specific and effective treatments. Our engineered ReSET system uses the probiotic E. coli Nissle 1917 to detect lactate and hypoxia, key tumour microenvironment cues, and secrete an Anti-CD38 Nanobody-Fc fusion, reprogramming immunosuppressive Tregs into healthy cells. Simultaneously, it produces salicylate, a harmless reporter detected via our ReSense paper strip assay, indicating bacterial colonisation and active therapy. This dual-action system combines targeted immunomodulation with real-time monitoring, offering a precise and adaptive therapeutic platform for CRC treatment. [Wiki](https://2025.igem.wiki/iiser-kolkata) | [Official Page](https://teams.igem.org/5941)https://static.igem.org/peertube/streaming-playlists/hls/81f3a861-240b-4df6-adda-36db4918949b/77bb4b51-7a49-4bd9-9d99-b83931329c65-master.m3u8https://video.igem.org/videos/embed/h3J7qmcteXXSXKHNi2BLfp8810882025-10-16T00:52:21.120ZYES2025 PresentationsNOhttps://video.igem.org/w/4ZR13fj6WQPQzxnPDSUG1ihttps://video.igem.org/lazy-static/thumbnails/9cf8a5fb-cd22-4e20-8f19-f02f80023abb.jpgAustin-UTexas: CyanoSense, a Step Forward for eDNA Biosensors (2025) - Team Presentation [English]**Title:** CyanoSense, a Step Forward for eDNA Biosensors **Description:** CyanoSense presents a new and exciting eDNA biosensor built from an ADP1 foundation. We highlight the 4 major areas of our project including DNA sensing, microcystin degradation, microcystin production, and recombinase. Through these areas we plan on combating toxic cyanobacteria outbreaks through their early identification and toxin relief. [Wiki](https://2025.igem.wiki/austin-utexas) | [Official Page](https://teams.igem.org/5584)https://static.igem.org/peertube/streaming-playlists/hls/205f0233-e751-4e36-b1d8-bdc21759be51/ff8d8a8a-f5f0-4ded-a420-8b876c21b467-master.m3u8https://video.igem.org/videos/embed/4ZR13fj6WQPQzxnPDSUG1i9020232025-10-15T16:47:23.052ZYES2025 PresentationsNOhttps://video.igem.org/w/vFAd8vcB7kqsebM1NcT6YEhttps://video.igem.org/lazy-static/thumbnails/7c6fc35c-5641-493c-a5a3-cbfec72ed68a.jpgTU-Dresden: TRAPS - Targeted RNA Activated Phase Separation (2025) - Team Presentation [English]**Title:** TRAPS - Targeted RNA Activated Phase Separation **Description:** Science needs methods. RNA is one of the most important and versatile groups of biomolecules, acting both as a messenger and a catalyst. Understanding RNA dynamics, localization, and expression in living cells is essential for decoding cellular function. Current RNA imaging methods often require cell fixation or extensive genetic modifications and are limited in detecting low abundance RNAs, due to low signal to noise ratio. Here, we present RNA detection through Targeted RNA Activated Phase Separation (TRAPS). TRAPS is a novel, modular method for in vivo RNA detection using catalytically inactive Cas13 fused to GFP-tagged scaffold domains. With TRAPS, fluorescent condensates form upon multivalent binding of the target RNA by Cas13, allowing easy detection and flexible modification. Our system enables real-time detection of endogenous RNAs, advancing the toolbox to detect RNA in lower abundance and shorter lifetime. As a proof-of-concept, we target mCherry mRNA in S. cerevisiae. Coupled with our software SEASTAR (Site-Effect Aware Sequence Targeting & Ranking) for optimal target site selection, TRAPS provides an easily accessible and versatile platform for studying RNA in living cells, a suitable tool for every scientist and future iGEM teams. [Wiki](https://2025.igem.wiki/tu-dresden) | [Official Page](https://teams.igem.org/5690)https://static.igem.org/peertube/streaming-playlists/hls/f0601c3c-2e74-4abc-8808-53c6acd54372/43b9735b-5b66-4bf0-8a9c-0cf99c25b552-master.m3u8https://video.igem.org/videos/embed/vFAd8vcB7kqsebM1NcT6YE8210402025-10-15T16:46:23.132ZYES2025 PresentationsNOhttps://video.igem.org/w/4hMoS2f7tAuGZGD3FgRrRkhttps://video.igem.org/lazy-static/thumbnails/8ce24097-1921-4a99-ae80-d27603bde99e.jpgBeijing-HS: Construction and Application of Red Light Induced Nanobody Productio... (2025) - Team...**Title:** Construction and Application of Red Light Induced Nanobody Production System **Description:** Cancer has emerged as a global public health challenge. In recent years, nanobodies have garnered significant attention in anti-tumor therapy due to their high affinity, low immunogenicity, and excellent tissue penetration. While commonly used production systems include mammalian cell and yeast expression platforms, they remain costly and intricate. Consequently, developing a safe, controllable, and efficient antibody production system is crucial for advancing tumor therapeutics. This study aims to develop an efficient and controllable nanobody production platform utilizing a red light-induced gene expression system in Escherichia coli. By integrating red light-mediated gene regulation technology with the robust protein production capacity of E. coli, we will achieve precise control over nanobody expression. This system will enable real-time regulation via red light signals, reducing production-associated side effects and energy consumption, while significantly enhancing the efficiency and quality of nanobody production. [Wiki](https://2025.igem.wiki/beijing-hs) | [Official Page](https://teams.igem.org/5734)https://static.igem.org/peertube/streaming-playlists/hls/1aa34a9c-f2eb-4cff-95ab-12a635bb47a9/e2146ba1-bcf0-46d3-8552-01bbc1beca2d-master.m3u8https://video.igem.org/videos/embed/4hMoS2f7tAuGZGD3FgRrRk7280212025-10-15T16:39:20.268ZYES2025 PresentationsNOhttps://video.igem.org/w/aSAkQgKLbyaVENqAwLhLZkhttps://video.igem.org/lazy-static/thumbnails/77a9994c-13ed-44a6-989f-167b5bef1ca7.jpgMissouri-Miners: Metlock: The Mineral Recovery Library of Tomorrow (2025) - Team Presentation [En...**Title:** Metlock: The Mineral Recovery Library of Tomorrow **Description:** Metlock targets the environmental and energy burdens of conventional metal recovery by engineering E. coli to selectively capture Zn²⁺ from ores, industrial waste, and polluted waters. The project's central objective is a modular, fine-tunable zinc-import system that maximizes uptake while avoiding cytotoxicity and can be extended to other metals in future iterations. Our design detaches the native high-affinity ZnuABC transporter from Zur repression and places it under LuxR/pLuxR control (BBa_K1960004), enabling AHL-dose-dependent expression. Functionally, ZnuA binds Zn²⁺ in the periplasm, ZnuB translocates it across the inner membrane, and ZnuC powers transport via ATP hydrolysis, yielding a programmable uptake system for Zn²⁺ influx across an AHL gradient. [Wiki](https://2025.igem.wiki/missouri-miners) | [Official Page](https://teams.igem.org/5759)https://static.igem.org/peertube/streaming-playlists/hls/4ff299b4-73ac-4e53-9dbe-b9f3b31d2fad/09c2529c-44bb-476c-86f7-de695aaf4294-master.m3u8https://video.igem.org/videos/embed/aSAkQgKLbyaVENqAwLhLZk6630112025-10-15T16:42:33.180ZYES2025 PresentationsNOhttps://video.igem.org/w/cotC5Ei6g75p9yWiuMT2Jthttps://video.igem.org/lazy-static/thumbnails/e562766a-b2fb-4f5c-92f2-b88d76dd453e.jpgBNDS-China: MeowTrack: A Probiotic Platform for Feline Gut Health (2025) - Team Presentation [Eng...**Title:** MeowTrack: A Probiotic Platform for Feline Gut Health **Description:** Cats are among the most popular companion animals worldwide, yet many of their health problems remain undiagnosed or untreated due to subtle symptoms and limited diagnostic tools. One of the most common chronic conditions is Inflammatory Bowel Disease (IBD), which is often worsened by hairball accumulation in the intestine. The resulting blockage can exacerbate inflammation and further compromise digestive health. To address this, we developed MeowTrack, a programmable therapeutic probiotic platform designed to detect, monitor, treat, and record feline gut health. The system employs taurocholic acid (TCA) as a signal of food intake and calprotectin as an IBD biomarker. These two inputs are integrated through an AND logic gate, ensuring that downstream responses occur only under disease conditions with food available. Upon activation, MeowTrack expresses keratin-degrading enzymes to eliminate hairballs, butyrate-producing enzymes to restore gut homeostasis, and chromoproteins or fluorescent proteins to visualize disease states in feces. Furthermore, MeowTrack incorporates a Retro-Cascorder–based recording system to chronologically log transcriptional events associated with gut inflammation. Finally, the platform is paired with a custom-designed smart litter box equipped with a fluorescence detection module, creating an end-to-end workflow that connects gut-level diagnostics with real-world, at-home disease monitoring. [Wiki](https://2025.igem.wiki/bnds-china) | [Official Page](https://teams.igem.org/5605)https://static.igem.org/peertube/streaming-playlists/hls/5c37e931-4b3e-4aed-a6f4-35e3b0c7834b/7a04c069-cb3d-4374-9cf3-bcb2d8e835ef-master.m3u8https://video.igem.org/videos/embed/cotC5Ei6g75p9yWiuMT2Jt8160682025-10-15T16:45:55.270ZYES2025 PresentationsNOhttps://video.igem.org/w/79AJnfQUykpXPWQSudcARVhttps://video.igem.org/lazy-static/thumbnails/312eb140-437b-4a58-9192-899182c35c3e.jpgStuttgart: Aralex - Bioleaching PGM's (2025) - Team Presentation [English]**Title:** Aralex - Bioleaching PGM's **Description:** In times of resource scarcity, global warming and overexploitation, it is our duty to find methods of responsible recycling. This was our mission with this project. Our aim is to recycle valuable platinum group metals (PGMs) using a novel bioleaching method from exhausted automobile catalysts and even street dust. [Wiki](https://2025.igem.wiki/stuttgart) | [Official Page](https://teams.igem.org/5829)https://static.igem.org/peertube/streaming-playlists/hls/31ca2f7e-84d6-4168-921d-f849eef4548f/9dd161d1-3c8e-497f-aa04-28b52b31734f-master.m3u8https://video.igem.org/videos/embed/79AJnfQUykpXPWQSudcARV8590302025-10-15T17:12:40.525ZYES2025 PresentationsNOhttps://video.igem.org/w/5ZKai2romFZyJGaTTBKfDihttps://video.igem.org/lazy-static/thumbnails/1fe814ad-2e5a-4d1e-88ad-9bbbd1436503.jpgUniMuenster: Bactolyze (2025) - Team Presentation [English]**Title:** Bactolyze **Description:** Antibiotic resistance is one of today’s largest threats to global health and we aim to redefine how we fight back against bacteria. With Bactolyze, we are building a modular pipeline for endolysin discovery and optimization, combining cell-free in vitro production and functional screening with molecular dynamics-based modeling of antimicrobial peptides. These peptides are fused to endolysins to enable extended targeting of Gram-negative pathogens. Prospectively, our endolysins could then be applied topically or inside the body in combination with phages as shuttle vectors or inside of nanocarriers. This would open up new possibilities for more precise and effective applications against bacteria and biofilms, offering an alternative to antibiotic therapies. [Wiki](https://2025.igem.wiki/unimuenster) | [Official Page](https://teams.igem.org/5946)https://static.igem.org/peertube/streaming-playlists/hls/28748c47-ae70-4e12-82fa-f40b50d43e73/1e67988a-0fe0-4219-ae3e-ba7ec02b4c6d-master.m3u8https://video.igem.org/videos/embed/5ZKai2romFZyJGaTTBKfDi7900222025-10-15T16:45:30.929ZYES2025 PresentationsNOhttps://video.igem.org/w/cnQEynHjFrw9jPMNjDG13khttps://video.igem.org/lazy-static/thumbnails/694f5071-f4d5-483b-a2c3-570aa6d22056.jpgAachen: NCLOSE: Reduction of Nitrate Pollution through Microbial Biopolymer Prod... (2025) - Team...**Title:** NCLOSE: Reduction of Nitrate Pollution through Microbial Biopolymer Production in Manure **Description:** NCLOSE aims to reduce global nitrate pollution by enabling the in situ production of a special biopolymer by an engineered microorganism in manure. This biopolymer binds free ammonium ions, thereby stabilizing nitrogen in the soil and reducing the rate of nitrate leaching. [Wiki](https://2025.igem.wiki/aachen) | [Official Page](https://teams.igem.org/5587)https://static.igem.org/peertube/streaming-playlists/hls/5c21229a-e6e1-457f-942d-fd4c8d329a57/ca131ac1-63b5-4514-9cc0-602d98de09b2-master.m3u8https://video.igem.org/videos/embed/cnQEynHjFrw9jPMNjDG13k8200752025-10-15T17:57:47.953ZYES2025 PresentationsNOhttps://video.igem.org/w/4krv4DU2XzbYYSuUZjJyDWhttps://video.igem.org/lazy-static/thumbnails/e29333a4-a093-4de2-b00d-223e69d42b0d.jpgRUM-UPRM: R-DetoX 2.0: Synthetic RDX-Induced Biodegradation Genetic Circuit in E... (2025) - Team...**Title:** R-DetoX 2.0: Synthetic RDX-Induced Biodegradation Genetic Circuit in Escherichia coli within a Serial Bioreactor System **Description:** R-DETOX 2.0 tackles the environmental crisis caused by RDX, a explosive contaminant left behind by military activity that threatens soil, water, and community health, particularly in Vieques, Puerto Rico. Using synthetic biology, the team engineered E. coli to express the xplA and xplB genes, which enzymatically degrade RDX, under the regulation of a constitutive promoter and a riboswitch for controlled expression. A kill-switch was also incorporated to ensure biosafety. On the engineering side, the team created a Serial Bioreactor System (SeBiS) and a downstream electrochemical reactor to optimize and contain the biodegradation process. Beyond the lab, our project emphasizes ethical science, social responsibility, and education. Therefore, we carried out workshops, outreach programs, and youth-focused learning initiatives in Puerto Rico to foster environmental awareness and synthetic biology education. [Wiki](https://2025.igem.wiki/rum-uprm) | [Official Page](https://teams.igem.org/5905)https://static.igem.org/peertube/streaming-playlists/hls/1b024361-e6e4-4c1a-9fa9-461b45b38068/71f6ed42-e0b9-4c43-9be7-fbc58dfafc9f-master.m3u8https://video.igem.org/videos/embed/4krv4DU2XzbYYSuUZjJyDW8960592025-10-15T19:17:43.054ZYES2025 PresentationsNOhttps://video.igem.org/w/3br3SkYALLsg56WF2x5Zunhttps://video.igem.org/lazy-static/thumbnails/bf8fa238-2bea-4db8-a1ed-daa339289513.jpgUMaryland: RGBio Lights Up Synthetic Biology (2025) - Team Presentation [English]**Title:** RGBio Lights Up Synthetic Biology **Description:** Our team introduces the world of optogenetic switches. We explain the science behind them and how we tested them to model their behavior. We demonstrate our new software tool, RGBAssistant, which is a user-friendly interface for future teams to conduct these LED experiments with ease. Our team walks through how these switches can be applied to bioplastic synthesis and explains how the independent regulation of specific enzymes within the same chassis could advance the fields of biomanufacturing and biochemistry. Thanks for watching! [Wiki](https://2025.igem.wiki/umaryland) | [Official Page](https://teams.igem.org/5586)https://static.igem.org/peertube/streaming-playlists/hls/11a726fc-8bd0-406b-8a5e-075319784a61/b2b22178-4ab4-4fc4-ae00-bb62d8e58ecc-master.m3u8https://video.igem.org/videos/embed/3br3SkYALLsg56WF2x5Zun9020172025-10-15T16:49:48.264ZYES2025 PresentationsNOhttps://video.igem.org/w/rYb3EBefGL5QFaiayfiNJchttps://video.igem.org/lazy-static/thumbnails/0676ec9f-21ff-4da6-a4dd-c96bc06b7ac5.jpgICT-Mumbai: Surviving the stars: Mission R.E.Y.N.A (2025) - Team Presentation [English]**Title:** Surviving the stars: Mission R.E.Y.N.A **Description:** To enable self-sufficient deep-space missions, future life-support systems must minimize reliance on Earth resupply. While oxygen and water recycling are established aboard the ISS, sustainable nutrient production remains a key challenge. Project R.E.Y.N.A. pioneers in-situ protein biomanufacturing by engineering Saccharomyces cerevisiae to convert urea-rich astronaut waste into single-cell protein (SCP), closing the nitrogen loop in space habitats. Through deletion of the nitrogen catabolite repression regulator GAT1 and overexpression of GLN1 and GDH1, our strain enhances nitrogen assimilation and amino acid biosynthesis. To ensure robustness under Cosmic Radiation, RAD51 and the tardigrade-derived Dsup gene are incorporated to improve DNA repair and oxidative damage tolerance. Additionally, a closed loop bioreactor coated with PVA-Melanin sheets that provide passive radioprotection. Together, these innovations establish a regenerative, radiation-resilient microbial protein system designed to advance bioregenerative life-support and ensure nutritional self-sufficiency for long-term space habitation. [Wiki](https://2025.igem.wiki/ict-mumbai) | [Official Page](https://teams.igem.org/5893)https://static.igem.org/peertube/streaming-playlists/hls/d24c4f04-7bd4-4472-8c9b-faea3a58374f/80fa643f-56b5-4eaf-8e03-76316b4ae956-master.m3u8https://video.igem.org/videos/embed/rYb3EBefGL5QFaiayfiNJc8920562025-10-15T17:11:50.024ZYES2025 PresentationsNOhttps://video.igem.org/w/eEjA8ieSitH2V5pZyCY3rMhttps://video.igem.org/lazy-static/thumbnails/9dfb455e-e577-4096-a455-fbb4df85aeba.jpgTUDarmstadt: ClaresO: Purification of Martian water from toxic perchlorate. (2025) - Team Present...**Title:** ClaresO: Purification of Martian water from toxic perchlorate. **Description:** Mars has long fascinated humankind. With the growing interest in its exploration, the use of local resources, especially water, is becoming increasingly important. However, its huge natural water resources are contaminated by toxic perchlorate salts and thus unusable. Therefore, we engineer Bacillus subtilis 168 to detoxify perchlorate fully and convert it into harmless chloride and oxygen. To measure perchlorate concentrations, we established an in vivo perchlorate quantification assay that functions via organic phase extraction. To understand the underlying biochemistry, we characterized perchlorate degradation enzymes in vitro and investigated the effect of rational mutations to improve their performance. To enable practical implementation of our project, we built and tested a low-cost DIY anaerobic bioreactor. In order to simulate Martian microgravity, we designed, built and verified a random positioning machine from scratch. This device enables biological studies in simulated microgravity environments. [Wiki](https://2025.igem.wiki/tudarmstadt) | [Official Page](https://teams.igem.org/5634)https://static.igem.org/peertube/streaming-playlists/hls/6ea08576-1f42-4d32-85c3-3290b516dadf/f6f3b513-0ff7-41d4-a62b-067972bf85c9-master.m3u8https://video.igem.org/videos/embed/eEjA8ieSitH2V5pZyCY3rM8380512025-10-15T16:48:21.422ZYES2025 PresentationsNOhttps://video.igem.org/w/wPodwi1SLd16rfBuqdPSn3https://video.igem.org/lazy-static/thumbnails/f4c60fcb-58dd-49bb-bea2-a8103a556215.jpgTsinghua-M: yeast SMART (2025) - Team Presentation [English]**Title:** yeast SMART **Description:** This report introduces Tsinghua-M 2025’s Yeast SMART project. Aiming at industrial yeast fermentation stress bottlenecks, it draws on TCM pulse diagnosis to propose "cellular pulses", with a ternary genetic oscillator as the core, combined with stress sensing-resistance modules. Dry-wet experiments confirm that Yeast SMART can capture dynamic stress responses and enhance yeasts’ anti-stress capacities. It also includes Integrated Human Practices and education initiatives, unleashing the true power of synthetic biology by forging a meaningful connection between the technology and the people it serves. [Wiki](https://2025.igem.wiki/tsinghua-m) | [Official Page](https://teams.igem.org/5805)https://static.igem.org/peertube/streaming-playlists/hls/f98fceda-c330-4a32-bb09-5873c5bfd164/d7e4259e-471f-4955-9f07-826d7f7d8e97-master.m3u8https://video.igem.org/videos/embed/wPodwi1SLd16rfBuqdPSn39020292025-10-15T16:59:56.455ZYES2025 PresentationsNOhttps://video.igem.org/w/dnvko1VRvJgHeALzA8QGwChttps://video.igem.org/lazy-static/thumbnails/9294dd15-b028-43f6-91ba-2202a3d4bbbf.jpgToronto: Mystiphage: A Generative Phage Bank Packaged in a Pill to Counter Antib... (2025) - Team...**Title:** Mystiphage: A Generative Phage Bank Packaged in a Pill to Counter Antibiotic-Resistant Infections at Scale **Description:** Antibiotic resistance is a growing global threat that requires new antimicrobial solutions. Phage therapy offers promise but is limited by the slow process of matching phage receptor-binding proteins (RBPs) to bacteria. Current prediction models lack generalizability and reliability. Mystiphage’s PHORAGER platform uses generative AI to identify and design synthetic RBPs for specific bacterial targets. By leveraging a curated RBP dataset and combining ESM-3 hallucination, Boltz-2 co-folding, and Markov Chain Monte Carlo iteration, PHORAGER develops high-affinity RBPs. These predictions are validated through a wet lab pipeline including cloning, counterselection, and phage spotting assays. The EVADE hardware system then seeks to deliver targeted therapy to the gut microbiome, connecting computational prediction with biological validation. This integration can reduce the time from design to therapeutic readiness from months to hours. Mystiphage’s approach enables scalable, adaptive, and personalized phage therapies to combat bacterial pathogens. [Wiki](https://2025.igem.wiki/toronto) | [Official Page](https://teams.igem.org/5708)https://static.igem.org/peertube/streaming-playlists/hls/642e5c63-4e50-4e08-8ece-3eb1cc1dc300/9027f07f-637b-43b9-ab6a-f1263cf2cb98-master.m3u8https://video.igem.org/videos/embed/dnvko1VRvJgHeALzA8QGwC87101602025-10-15T16:50:28.082ZYES2025 PresentationsNOhttps://video.igem.org/w/oPLVERepNfJxfkyD5PVhP4https://video.igem.org/lazy-static/thumbnails/c382267f-12ce-4aff-936f-9bbda44a000b.jpgHZAU-China: HemorrEaser: A Novel Strategy for Treating Hemorrhoids (2025) - Team Presentation [En...**Title:** HemorrEaser: A Novel Strategy for Treating Hemorrhoids **Description:** Hemorrhoids present significant treatment challenges such as symptomatic relief, surgical pain, and high recurrence rates. Based on sociological research, we developed "HemorrEaser", a synthetic biology therapy. Using engineered E. coli Nissle 1917 in oral and topical formulations, our design features three innovations: OMV-delieverying bioPROTAC-mediated HIF-1α degradation combined with an activatable anti-VEGF nanobody to suppress pathological angiogenesis; ROS-responsive release of anti-inflammatory peptides for rapid pain relief; a dietary-component-responsive riboswitch enabling medicine-food collaboration for treatment regulation and safety control. HemorrEaser provides a precise, minimally invasive therapeutic strategy while establishing a new chronic disease management paradigm through lifestyle-integrated therapy. [Wiki](https://2025.igem.wiki/hzau-china) | [Official Page](https://teams.igem.org/5918)https://static.igem.org/peertube/streaming-playlists/hls/b8d4b1a5-bc26-4ec1-aaa9-ae5670bd05e1/80a3dba7-376a-47fd-8fcd-1843ed8b8932-master.m3u8https://video.igem.org/videos/embed/oPLVERepNfJxfkyD5PVhP49030722025-10-15T16:49:12.086ZYES2025 PresentationsNOhttps://video.igem.org/w/mYbJan8RQrzSX67wtZfweShttps://video.igem.org/lazy-static/thumbnails/f2a26948-6028-45ed-9650-4f9432a2e73d.jpgIIT-D: EnzyCaps: Smart Enzyme Encapsulation for a Sustainable Future | IIT Delhi (2025) - Team Pr...**Title:** EnzyCaps: Smart Enzyme Encapsulation for a Sustainable Future | IIT Delhi **Description:** EnzyCaps is IIT Delhi’s iGEM 2025 project, aimed at revolutionizing enzyme biomanufacturing through innovative encapsulation strategies. Our goal is to enhance enzyme stability, reusability, and efficiency by packaging them within biological microcompartments creating a scalable, sustainable, and cost-effective solution for industrial applications. In this video, we walk you through our project’s journey from identifying the problem and computationally designing our system, to wet lab experiments, modeling, and educational outreach. Team EnzyCaps | iGEM IIT Delhi 2025 Innovating enzymes for a better tomorrow. Sections Covered: -Introduction & Problem Statement -Computational Design & Promoter Engineering -Enzyme Encapsulation Strategy -Results & Modeling -Education & Human Practices -Future Prospects [Wiki](https://2025.igem.wiki/iit-d) | [Official Page](https://teams.igem.org/5859)https://static.igem.org/peertube/streaming-playlists/hls/a9cf08f7-1418-4b08-a5ab-3eae237fc17c/fd6b4aa6-1bae-4da5-a0c9-3a8e850207f3-master.m3u8https://video.igem.org/videos/embed/mYbJan8RQrzSX67wtZfweS8920172025-10-15T16:50:48.033ZYES2025 PresentationsNOhttps://video.igem.org/w/pMpXHyvyDaLJdnKS9nufeEhttps://video.igem.org/lazy-static/thumbnails/8d31dab8-4022-4fc4-b595-1b1765e41095.jpgImperial: The Future Is Grown, Not Slaughtered (2025) - Team Presentation [English]**Title:** The Future Is Grown, Not Slaughtered **Description:** We present almost a year worth of work from Imperial’s iGEM team aiming to bring cultivated meat closer to being a reality of today. Due to its immense environmental footprint, beef and other slaughtered meats will not be able to stay on the world’s table for much longer. We critically examine what the limiting factors in cultivated meat production and adoption are. Considering that global adoption will only be achieved through cost parity with conventional meat, we achieve progress by tackling the main cost-contributor. Specifically growth factors, which we produce in Komagataella phaffii. What follows is our experimental journey towards growth factor production in K. phaffii, underpinned by chassis engineering to tackle the limiting issue of downstream processing discovered during our iHP. Lastly, we provide an overview of our batch Bayesian Optimisation based modelling that allows efficient optimisation of various Chassis at iGEM timescales. [Wiki](https://2025.igem.wiki/imperial) | [Official Page](https://teams.igem.org/5916)https://static.igem.org/peertube/streaming-playlists/hls/c0996cd2-e2a4-4a4d-b1ea-d8d2522af7c0/c827a857-8464-4f61-811c-e746ce16487b-master.m3u8https://video.igem.org/videos/embed/pMpXHyvyDaLJdnKS9nufeE7660402025-10-15T16:57:00.061ZYES2025 PresentationsNOhttps://video.igem.org/w/7dvpNtBt5TbRaJz8gbvau5https://video.igem.org/lazy-static/thumbnails/b8b858f7-1e50-4e76-bdb4-412e1d00790e.jpgNUS-SPS: Enzymatic Control using Logic-Based Inducible Promoter System Engineering (2025) - Team ...**Title:** Enzymatic Control using Logic-Based Inducible Promoter System Engineering **Description:** Many biological systems are limited by regulation and functionality. Conventional inducible systems that rely on conditional control tend to be stochastic and offer little tunability. Furthermore, many wild-type enzymes display poor catalytic efficiency or stability when expressed in heterologous hosts. Here, we present ECLIPSE (Enzymatic Control using Logic-Based Inducible Promoter System Engineering), a genetic framework that integrates multi-layered regulation with synthetic enzymology. We combine inducible repressor-operator systems with CRISPRi-based dCas9-sgRNA repression to achieve both conditional ON/OFF switching and fine-tuned, graded control of gene expression respectively. We also optimised our effector enzyme through two complementary approaches – host optimization and rational mutagenesis. We then apply this framework to treat hypercholesterolemia, engineering E. coli Nissle to express ECOP170 for the in-situ breakdown of dietary cholesterol. Our probiotic platform thereby acts as a proof-of-concept that bridges precise genetic regulation with optimized enzymatic function, offering a generalizable strategy for designing programmable and robust systems. [Wiki](https://2025.igem.wiki/nus-sps) | [Official Page](https://teams.igem.org/5860)https://static.igem.org/peertube/streaming-playlists/hls/3255e1c9-a0d1-4907-a89f-b5d407495868/62d82acd-9530-499a-87a0-c27b8c5b7c02-master.m3u8https://video.igem.org/videos/embed/7dvpNtBt5TbRaJz8gbvau58480352025-10-15T16:52:20.346ZYES2025 PresentationsNOhttps://video.igem.org/w/vPgZZVZtdAxV3XrJ2uFwMBhttps://video.igem.org/lazy-static/thumbnails/ffb5e047-7fb2-488d-b69d-3a276c322754.jpgICJFLS: AromaWell: Customize Your Signature Aromatherapy Essential Oil (2025) - Team Presentation...**Title:** AromaWell: Customize Your Signature Aromatherapy Essential Oil **Description:** The core components of rose essential oil are geraniol and citronellol, while that of lavender is linalool. These three components share highly similar terpenoid biosynthetic pathways. This commonality provides us with an unprecedented technical opportunity: by modifying microbial cell factories, we enable yeast to produce geraniol (the common precursor substance) and Escherichia coli to synthesize citronellol and linalool. By enhancing the supply of precursor substances and introducing selective catalytic enzymes, we construct a metabolic network that can efficiently synthesize geraniol, citronellol, and linalool. The key lies in the introduction of regulatable promoter systems and artificial gene circuits, which allow for precise regulation of the metabolic flux of each synthetic branch through external induction and culture parameters. This enables end-users to dynamically adjust the synthesis rate of each component according to their personal preferences, and ultimately obtain personalized mixed essential oil components in a single fermentation system at one time. [Wiki](https://2025.igem.wiki/icjfls) | [Official Page](https://teams.igem.org/5654)https://static.igem.org/peertube/streaming-playlists/hls/f172d6b2-e774-465a-ae4d-c0a4a7a4f805/64306fc8-3641-45ca-9f33-1dd4857b0566-master.m3u8https://video.igem.org/videos/embed/vPgZZVZtdAxV3XrJ2uFwMB8150192025-10-15T16:55:20.784ZYES2025 PresentationsNOhttps://video.igem.org/w/oAgPuVZ3ZLM6TDWLrfmXSrhttps://video.igem.org/lazy-static/thumbnails/22555a96-c647-40f3-8f9d-5aafcc05c421.jpgESSENTIAL KOREA: LactoBexo: Microbiome-Derived Exosome Therapy for Sustainable O... (2025) - Team...**Title:** LactoBexo: Microbiome-Derived Exosome Therapy for Sustainable Obesity Management **Description:** Team Essential aims to develop a next-generation, microbiome-based therapeutic platform using Lactobacillus rhamnosus–derived exosomes that naturally activate AMPK pathways to reduce adipogenesis. By combining synthetic biology, AI-driven protein modeling, and human-centered design, our team seeks to create a safe, accessible, and socially responsible obesity management solution that bridges the gap between laboratory research and real-world healthcare. [Wiki](https://2025.igem.wiki/essential-korea) | [Official Page](https://teams.igem.org/6019)https://static.igem.org/peertube/streaming-playlists/hls/b6f21664-7f0b-4c9c-aa5f-55101323d5c9/8b54a8ee-64c5-45b2-ad16-36dc8ce35bba-master.m3u8https://video.igem.org/videos/embed/oAgPuVZ3ZLM6TDWLrfmXSr8810392025-10-15T16:58:19.621ZYES2025 PresentationsNOhttps://video.igem.org/w/ksdix718PhAABdAcQ7NSAZhttps://video.igem.org/lazy-static/thumbnails/7f8d2f19-b603-4ea3-809d-6fff3718b557.jpgBenenden Guangzhou: BBSG (2025) - Team Presentation [English]**Title:** BBSG **Description:** In our BBSG iGEM team, all the members of the team have made vital contributions to our project. Including human practices, wet lab, education, team building, engineering, experiments. Through our joint efforts, we are committed to promoting synthetic biolgy to future iGEMers and passing on the spirit of science to the next generation. [Wiki](https://2025.igem.wiki/benenden-guangzhou) | [Official Page](https://teams.igem.org/5871)https://static.igem.org/peertube/streaming-playlists/hls/9d868ddc-e7e9-4062-b67d-8837cc686445/4986749a-221e-4b27-9826-04effc01808f-master.m3u8https://video.igem.org/videos/embed/ksdix718PhAABdAcQ7NSAZ9030232025-10-15T16:52:54.006ZYES2025 PresentationsNOhttps://video.igem.org/w/jqk8dmnmEmHsHrbErzhycdhttps://video.igem.org/lazy-static/thumbnails/3ce2a6e1-ac20-47b4-908e-3e3e3d8e7e70.jpgBielefeld-CeBiTec: Cellective - Two Switches, One Target (2025) - Team Presentation [English]**Title:** Cellective - Two Switches, One Target **Description:** We are developing a novel dual-safety riboswitch system to improve triple negative breast cancer (TNBC) therapy by increasing specificity and reducing side effects. Riboswitches are RNA-based elements that regulate gene expression in response to defined molecular inputs. Our system uses two independent riboswitches: one responds to general cancer-associated mRNA, the other switch to breast cancer-specific microRNAs. The therapeutic effect is only triggered when both riboswitches are activated. Each riboswitch contains a sensor domain that binds its target RNA and a structural domain that controls translation. The cooperative action of both ensures a high level of precision. Upon activation, the system expresses a modified human Gasdermin D. Once cleaved by the protease encoded by the first riboswitch, Gasdermin D oligomerizes and forms membrane pores which leads to targeted cell death. This approach restricts cytotoxicity to cancer cells and can be reprogrammed for other cancers by exchanging recognition elements. [Wiki](https://2025.igem.wiki/bielefeld-cebitec) | [Official Page](https://teams.igem.org/5833)https://static.igem.org/peertube/streaming-playlists/hls/952a21d5-a453-4730-9eeb-bea20ac5feba/0f34ee21-576b-4ee1-bede-7def545dc00e-master.m3u8https://video.igem.org/videos/embed/jqk8dmnmEmHsHrbErzhycd9030532025-10-15T16:54:14.378ZYES2025 PresentationsNOhttps://video.igem.org/w/ehRL5tg5HAf3EKZQYrZjmqhttps://video.igem.org/lazy-static/thumbnails/28d4e288-9e51-4787-9d0a-f2d8b2807d40.jpgNFLSHS-CHINA: Using Synthetic Biology to Decode the Secrets of Youth (2025) - Team Presentation [...**Title:** Using Synthetic Biology to Decode the Secrets of Youth **Description:** We are NFLSHS-CHINA, the iGEM team from Shenzhen Nanshan Foreign Language School (Senior High). Our project aims to address the shortage of astaxanthin in facial masks caused by its high production cost. In this project, we employed a dual T7 promoter system to efficiently express the key genes involved in the astaxanthin biosynthetic pathway, enabling successful astaxanthin production. Through protein structure analysis, we identified the binding pocket responsible for β-carotene hydroxylation, and performed site-directed mutagenesis guided by molecular docking to obtain mutant enzymes with significantly enhanced catalytic efficiency. Finally, through social research, expert interviews, and the development of an astaxanthin facial mask prototype, we demonstrated the promising market potential of our project. [Wiki](https://2025.igem.wiki/nflshs-china) | [Official Page](https://teams.igem.org/5908)https://static.igem.org/peertube/streaming-playlists/hls/6ba15e59-d5f8-4419-87a0-c4b5bceb4720/56895bd2-8bf1-4ae4-a443-cdd25a2e50c4-master.m3u8https://video.igem.org/videos/embed/ehRL5tg5HAf3EKZQYrZjmq8830122025-10-15T16:54:46.258ZYES2025 PresentationsNOhttps://video.igem.org/w/92q4Ph3bRTXBrmREZrBUfdhttps://video.igem.org/lazy-static/thumbnails/1beccac1-0fe4-4d48-890b-544a9956617d.jpgHK-HCY-PCMS: Opthera - a Multitarget Biotherapeutic Solution for Glaucoma (2025) - Team Presentat...**Title:** Opthera - a Multitarget Biotherapeutic Solution for Glaucoma **Description:** Glaucoma affects over 80 million people worldwide, with projections exceeding 111 million by 2040, leading to irreversible blindness in about 4.5 million individuals. Current treatments, including eye drops and surgery, have significant drawbacks. Our innovative eyedrop formulation features dual-action fusion proteins FT and BC, targeting both intraocular pressure and retinal cell death without common side effects. Our mission is to pioneer synthetic biology solutions that address these challenges while collaborating with patients, researchers, and advocates. We developed BC to protect retinal ganglion cells and FT to enhance aqueous humor outflow. Delivered via specialized liposomes, these proteins ensure targeted action with minimal invasiveness. Engaging through our integrated human practices journey has refined our understanding of patient needs, enabling us to adapt our approach. Furthermore, we promoted awareness and understanding of glaucoma and synthetic biology through the numerous activities conducted with different stakeholders of this issue. In conclusion, our innovative drug could prevent the vision of up to 4.5 million people from progressing to full blindness each year, substantially reduce the burden of primary open-angle glaucoma. [Wiki](https://2025.igem.wiki/hk-hcy-pcms) | [Official Page](https://teams.igem.org/5641)https://static.igem.org/peertube/streaming-playlists/hls/40fbaf21-fe28-4756-8e56-1f42b4d3db30/c036f6a9-d10b-4125-9234-2626896f951e-master.m3u8https://video.igem.org/videos/embed/92q4Ph3bRTXBrmREZrBUfd8950372025-10-15T16:51:19.842ZYES2025 PresentationsNOhttps://video.igem.org/w/jrip98G479UNJbbNsSD75vhttps://video.igem.org/lazy-static/thumbnails/e894bdc5-c1ed-4581-8ef4-651ab92e40f9.jpgHG-Tokyo: NONERGY - Combating Hay Fever with our Innovative Dual Approach (2025) - Team Presentat...**Title:** NONERGY - Combating Hay Fever with our Innovative Dual Approach **Description:** Concerned about the increasing prevalence of hay fever in Japan, and with more than half of its team members suffering from it, HG-Tokyo proposes an innovative dual approach: The biosynthesis of narirutin, a flavonoid compound with proven anti-allergic effects, and the creation of a fusion peptide. HG-Tokyo successfully reconstructed the biosynthetic pathway of Citrus jabara-derived narirutin, a flavonoid compound that is known to have anti-allergic properties. By expressing two novel glycotransferases, F7GT from Antirrhinum majus and 1,6RhaT from Citrus sinensis, they were able to prove the functions of the enzymes and the effectiveness of our recombinant yeast chassis. The fusion peptide is made up of multiple peptides, each with immunomodulatory effects, as well as cleavable linkers that respond to proteases abundant at certain points in the allergic reaction, which ensures that the peptide is effective only on inflamed tissues, reducing side effects. HG-Tokyo implemented the voices of different stakeholders, integrating them into project ideation, research strategies, educational initiatives, and social implementation. [Wiki](https://2025.igem.wiki/hg-tokyo) | [Official Page](https://teams.igem.org/5919)https://static.igem.org/peertube/streaming-playlists/hls/954cd008-3afc-424e-9977-936932232585/939d847c-8f04-4e77-a34f-bb9a741ad1c7-master.m3u8https://video.igem.org/videos/embed/jrip98G479UNJbbNsSD75v89951512025-10-15T16:51:35.763ZYES2025 PresentationsNOhttps://video.igem.org/w/wJnCeLbMp8PRrCrMw4XgXUhttps://video.igem.org/lazy-static/thumbnails/59031858-d56e-4f38-994c-6a10b6d8950f.jpgOUC-Haide: Yeast Medics (2025) - Team Presentation [English]**Title:** Yeast Medics **Description:** Globally, nearly 588 million people live with diabetes, and up to 25% of them suffer from chronic, non-healing wounds, facing risks of infection, gangrene, and even amputation. Current conventional therapies are ineffective and cumbersome, exacerbating patient suffering, while advanced treatments remain inaccessible due to high costs, limited functionality, or lack of dynamic regulation. To address this, we introduce “Yeast Medics”—an innovative injectable dressing based on engineered Yarrowia lipolytica and L-DOPA-modified thermosensitive chitosan. This system dynamically senses wound status, displays antimicrobial peptides (Pexiganan) on the yeast surface, and programmatically releases both anti-inflammatory (IL-4) and pro-angiogenic (VEGF) factors. It synergistically addresses the three major challenges of infection, inflammation, and regeneration on a single platform, providing diabetic patients with an integrated, self-driven, low-burden healing solution. [Wiki](https://2025.igem.wiki/ouc-haide) | [Official Page](https://teams.igem.org/5541)https://static.igem.org/peertube/streaming-playlists/hls/f8dcb992-02d0-4b85-a1b6-765810a89a0e/4e98a789-1be3-4510-8e56-d6e3dde79ec3-master.m3u8https://video.igem.org/videos/embed/wJnCeLbMp8PRrCrMw4XgXU7120162025-10-15T17:02:29.962ZYES2025 PresentationsNOhttps://video.igem.org/w/cHJdEqTgB3ecti1i6mzaz7https://video.igem.org/lazy-static/thumbnails/58f80777-08e4-4c3b-8b8e-ccbe834ec4de.jpgHBUT-China: Improve Cyclic Lipopeptide Production through Random and Rational Mu... (2025) - Team...**Title:** Improve Cyclic Lipopeptide Production through Random and Rational Mutagenesis **Description:** Plant diseases pose a major threat to global food security and economy. Chemical pesticides cause escalating pathogen resistance and environmental contamination. Cyclic lipopeptides (CLPs) produced by Bacillus species offer a promising and sustainable alternative. However, their large-scale application remains limited due to the low production titers of native strains. In this project, we engineered Bacillus velezensis through an integrated synthetic biology pipeline. ARTP mutagenesis and high-throughput screening were used to isolate high-yield mutants. Key gene mutations were identified and reconstructed in the wild-type strain. A dual-gRNA system was designed to efficiently delete long gene fragments. Furthermore, a computational protocol was designed for NRPS communication (COM) domains prediction and used to direct gene cluster mutagenesis. Overall, our work establishes a modular engineering framework for optimizing and innovating CLP-based biopesticides, offering effective and sustainable solutions for crop protection and contributing a versatile genetic toolkit to the synthetic biology community. [Wiki](https://2025.igem.wiki/hbut-china) | [Official Page](https://teams.igem.org/5726)https://static.igem.org/peertube/streaming-playlists/hls/5ee809ac-dff5-4ef6-b128-4f7f651fbb8c/1d2714dd-9d00-4b39-9ec3-9d063ac38b7b-master.m3u8https://video.igem.org/videos/embed/cHJdEqTgB3ecti1i6mzaz77400192025-10-15T17:50:08.031ZYES2025 PresentationsNOhttps://video.igem.org/w/vAijNzVbhBuudScCBYwxumhttps://video.igem.org/lazy-static/thumbnails/507cefad-887c-467d-8ebc-30044d392155.jpgBAID-China: Pestacheck: An Improved Pesticide Residue Detection Test Strip (2025) - Team Presenta...**Title:** Pestacheck: An Improved Pesticide Residue Detection Test Strip **Description:** Pesticide residues on food pose serious health risks to the whole world, yet current detection methods remain inefficient and unstable. Recognizing this issue, we developed Pestacheck, a rapid, low-cost pesticide residue detection test strip based on the enzyme-inhibition principle of acetylcholinesterase (AChE). Through Alanine-scanning mutagenesis, we engineered AChE mutants via Cell-Free expression system. The optimized enzyme was immobilized with Gold Nanoparticles (AuNP) to improve sensitivity and integrated into a colloidal gold-based test strip for visible colorimetric detection. Together, Pestacheck provides a user-friendly synthetic biology solution for on-site pesticide residue detection. [Wiki](https://2025.igem.wiki/baid-china) | [Official Page](https://teams.igem.org/5625)https://static.igem.org/peertube/streaming-playlists/hls/efa2fc58-fd45-49e4-aa32-f86681967d58/584a2f9e-5e5d-4cab-9768-3223c13d5fe1-master.m3u8https://video.igem.org/videos/embed/vAijNzVbhBuudScCBYwxum8830362025-10-15T17:07:39.936ZYES2025 PresentationsNOhttps://video.igem.org/w/7rEgRhFFvkqzhC2BqCmmhohttps://video.igem.org/lazy-static/thumbnails/fe6bb9e3-e9b0-4ca4-a4f0-734f162d51f2.jpgUGM-Indonesia: SALTY: Salt-Inducible TYDV Rep/RepA System for Cost-Effective DEN... (2025) - Team...**Title:** SALTY: Salt-Inducible TYDV Rep/RepA System for Cost-Effective DENV-2 Domain III Vaccine in Nicotiana tabacum **Description:** In 2024, Indonesia faced over 210,000 dengue cases and more than 1,200 deaths, revealing deep gaps in vaccine access and affordability. Amid this urgent need, the iGEM UGM team set out to reimagine a familiar Indonesian crop: tobacco. SALTY, a salt-inducible, TYDV-based expression system, was designed to produce dengue subunit vaccine proteins in Nicotiana tabacum, transforming a legacy crop into a new biomanufacturing platform. Alongside it, the team built NiSPOT, a genomic classifier that predicts stress-responsive promoter regions, and a Consensus Mutagenesis Pipeline to optimize protein vaccine design using protein language models. Guided by expert consultations and grounded in local wisdom from tobacco farmers in Temanggung and Jember, SALTY bridges synthetic biology innovation with cultural relevance. The project not only advances plant molecular farming technology but also redefines how Indonesia can produce affordable, locally made biopharmaceuticals. Beyond the lab, the team launched inclusive outreach initiatives, from storybooks and radio broadcasts to card games and community education, ensuring that science becomes accessible, trusted, and meaningful for everyone. Through SALTY, we envision a future where innovation grows from local roots, making vaccines more affordable, communities more empowered, and tobacco a symbol of health, not harm. [Wiki](https://2025.igem.wiki/ugm-indonesia) | [Official Page](https://teams.igem.org/5811)https://static.igem.org/peertube/streaming-playlists/hls/342c0350-d209-4ceb-a30e-a605ef949026/07d7b441-20f5-4663-9398-73ee8fb9ce90-master.m3u8https://video.igem.org/videos/embed/7rEgRhFFvkqzhC2BqCmmho9030182025-10-15T17:30:40.721ZYES2025 PresentationsNOhttps://video.igem.org/w/tYLYotkHgVBzhQTMqYw9h5https://video.igem.org/lazy-static/thumbnails/2c221cfc-8b96-43bf-89a8-91add2c3bb09.jpgCambridge: CamiRa: Crop Assessment via microRNA Analysis (2025) - Team Presentation [English]**Title:** CamiRa: Crop Assessment via microRNA Analysis **Description:** The overapplication of fertilisers is a global issue that contributes to environmental degradation. For targeted application of fertiliser, smallholder farmers need a way to accurately assess the nutrient needs of their crops, but current methods are expensive, slow, and/or inaccurate. We developed CamiRa, a cheap, easy-to-use miRNA extraction, detection and analysis kit, to assess stress-associated crop miRNAs from leaf samples in the field. We worked with ath-miR399f - upregulated in Arabidopsis thaliana in response to phosphate stress - as a proof of concept. RNA extraction involves a modified isopropanol precipitation, while detection can be performed using two paper-based detection methods: miRNA sandwich hybridisation and miRNA-primed RCA (rolling circle amplification) with subsequent G-quadruplex formation. Additionally, we developed a 3D-printed dark box and smartphone app to analyse the fluorescent readouts from detection. A microRNA gene ontology search tool was also developed to assist in the identification of stress-associated miRNA targets from other species. Overall, our team aims to empower smallholder farmers in assessing crop health, enabling targeted fertiliser application to mitigate against environmental degradation. [Wiki](https://2025.igem.wiki/cambridge) | [Official Page](https://teams.igem.org/5799)https://static.igem.org/peertube/streaming-playlists/hls/e2941c2b-a4ec-4928-90b7-2d83e4b52cb4/4c0bff10-cdc3-4044-865e-a706bfd634d5-master.m3u8https://video.igem.org/videos/embed/tYLYotkHgVBzhQTMqYw9h58580652025-10-15T16:53:41.882ZYES2025 PresentationsNOhttps://video.igem.org/w/d8xyKsniDp95PLg1hCHXKbhttps://video.igem.org/lazy-static/thumbnails/11bff2b4-3fad-4175-9865-a32c061a6254.jpgJilin-AI: BIOMNIGEM: An AI Assistant That Truly "Understands Biology" (2025) - Team Presentation ...**Title:** BIOMNIGEM: An AI Assistant That Truly "Understands Biology" **Description:** We introduce BiomniGEM, a large language model (LLM) specifically designed for multi-omics data understanding and biological reasoning, which integrates three omics modalities (DNA / cell profile/protein) and explicitly embeds omics information during joint training, enabling the model to directly read and reason over biological data. Our text builds upon prior ideas of transforming single-cell profiles into “cell sentences” and complements sequence-level foundation models in genomics and proteomics. The SynBioCoT dataset spans cell profiles, DNA, and protein modalities and covers five categories of omics tasks, aiming to systematically teach both omics understanding and biological reasoning. Experimental results show that BiomniGEM consistently outperforms leading commercial and open-source models in understanding raw omics data and demonstrates superior reasoning performance, achieving the best results on our benchmark tasks. [Wiki](https://2025.igem.wiki/jilin-ai) | [Official Page](https://teams.igem.org/6032)https://static.igem.org/peertube/streaming-playlists/hls/623b529d-37e2-4378-ad19-831506fdccac/0a8fc71c-b494-4814-b8e2-6bb4d9e84d47-master.m3u8https://video.igem.org/videos/embed/d8xyKsniDp95PLg1hCHXKb8760222025-10-15T16:51:51.489ZYES2025 PresentationsNOhttps://video.igem.org/w/p8hWeF4J2sH2NXhFRVSLVahttps://video.igem.org/lazy-static/thumbnails/b82bdf41-ce70-498d-aafe-51be22b8af3d.jpgWarsaw: HepaSwitch: Next step in a liver cancer treatment (2025) - Team Presentation [English]**Title:** HepaSwitch: Next step in a liver cancer treatment **Description:** Specific, safe, and effective — that's a recipe for a perfect cancer treatment. Using the tools of synthetic biology, our toehold switch, we aim to change the treatment of hepatocellular cancer forever. [Wiki](https://2025.igem.wiki/warsaw) | [Official Page](https://teams.igem.org/5865)https://static.igem.org/peertube/streaming-playlists/hls/bb46d50a-c24a-4f95-9902-f73c269e8cbb/be6b9437-b752-488e-bece-fc5cd0c1a7fe-master.m3u8https://video.igem.org/videos/embed/p8hWeF4J2sH2NXhFRVSLVa9020322025-10-15T17:01:27.482ZYES2025 PresentationsNOhttps://video.igem.org/w/mKtm2zFSykA5HZ44fx8pGrhttps://video.igem.org/lazy-static/thumbnails/4b0554f7-48dc-4d2b-b4c4-4ca9a756291c.jpgLambert-GA: LANCET — A Novel Diagnostic and Therapeutic to Combat Lyme Disease (2025) - Team Pres...**Title:** LANCET — A Novel Diagnostic and Therapeutic to Combat Lyme Disease **Description:** 89,000 cases of Lyme disease were reported to the CDC in 2023, yet experts estimate that nearly half a million Americans are infected with Borrelia burgdorferi annually. This significant underdiagnosis is due to the rapid dissemination of the bacteria into tissue, causing current tests to rely on antibodies produced weeks post-infection. However, the outer surface protein, CspZ, persists in the bloodstream, allowing for early detection through LANCET. Our diagnostic workflow begins with proximity-dependent ligation to detect CspZ and produce DNA, which is then amplified by recombinase polymerase amplification. Cas12a targets this DNA, providing a user-friendly output through a lateral flow assay. Even with improved diagnosis, treatment continues to rely on antibiotics, contributing to antimicrobial resistance and failing to address post-treatment Lyme disease. LANCET offers a novel approach through a multiplexed CRISPR-interference system to silence critical genes, effectively killing the bacteria. Our initiative also includes community education, fostering proactive behaviors against Lyme. [Wiki](https://2025.igem.wiki/lambert-ga) | [Official Page](https://teams.igem.org/5612)https://static.igem.org/peertube/streaming-playlists/hls/a8089b81-b88b-46da-a42a-e863e9ded76d/720b3205-8d47-4d8e-a8ce-6765b45ebbb1-master.m3u8https://video.igem.org/videos/embed/mKtm2zFSykA5HZ44fx8pGr79301222025-10-15T16:56:09.787ZYES2025 PresentationsNOhttps://video.igem.org/w/wiWWZFvj6Z7etGp3z9BY7Shttps://video.igem.org/lazy-static/thumbnails/4bb67afa-2931-4639-8d75-8e5e679beac3.jpgNENU-China: Lacbutler (2025) - Team Presentation [English]**Title:** Lacbutler **Description:** Lactose intolerance, a prevalent global condition, causes symptoms like diarrhea and abdominal pain due to lactase deficiency in the gut. Current dietary management lacks long-term efficacy and impacts life quality. We propose a sustainable synthetic biology-based therapy using engineered Bifidobacterium. This strain is modified with a optimized bgaB lactase and LacY lactose transporter for efficient lactose metabolism. It also incorporates a genetic circuit with a deoxycholic acid-inducible MucBP adhesion protein and an AI-2/CcdB-mediated population control system. This design enables stable colonization at an appropriate density, ensuring continuous lactose breakdown for long-term management of lactose intolerance. [Wiki](https://2025.igem.wiki/nenu-china) | [Official Page](https://teams.igem.org/5582)https://static.igem.org/peertube/streaming-playlists/hls/f573aaba-93a3-46c2-b9f0-20958fbaff06/222b6d9e-6618-459c-940c-07f53204cb5d-master.m3u8https://video.igem.org/videos/embed/wiWWZFvj6Z7etGp3z9BY7S8660252025-10-15T16:57:33.098ZYES2025 PresentationsNOhttps://video.igem.org/w/aftz1zWryMp4vJwf9VEfhihttps://video.igem.org/lazy-static/thumbnails/a83e6709-b478-4c70-a3a3-3d5134347382.jpgLZU-China: Treating End-Stage Liver Disease via Synergistic Co-delivery of miRNA... (2025) - Team...**Title:** Treating End-Stage Liver Disease via Synergistic Co-delivery of miRNA-Engineered Exosomes **Description:** Human umbilical cord mesenchymal stem cell (hUC-MSC)-derived exosomes can ameliorate liver disease via their diverse effector cargo. While individual miRNAs like miR-455-3p and miR-148a-5p are known anti-fibrotic agents, their therapeutic synergy is uninvestigated. This study will co-deliver two distinct exosome populations, each artificially supplemented with one of these miRNAs, to assess their combined efficacy. We aim to validate a synergistic mechanism, demonstrate superiority over enriching a single miRNA, and determine the optimal delivery ratio. This work provides a rationale for designing multi-target exosome therapies. [Wiki](https://2025.igem.wiki/lzu-china) | [Official Page](https://teams.igem.org/5547)https://static.igem.org/peertube/streaming-playlists/hls/4ae7a69b-34da-43e7-bb3e-d72acbdf4169/aed24f23-97e3-4cb1-ab61-bcf661e34622-master.m3u8https://video.igem.org/videos/embed/aftz1zWryMp4vJwf9VEfhi1180182025-10-15T16:27:31.714ZYES2025 PresentationsNOhttps://video.igem.org/w/jhUg1bFGesgEun1foHEE1ohttps://video.igem.org/lazy-static/thumbnails/a9078844-7738-4d6a-9717-bc677baae26c.jpgTsukuba: CERES: Computational Enzymes Research and Exploring System (2025) - Team Presentation [E...**Title:** CERES: Computational Enzymes Research and Exploring System **Description:** In this study, we developed a novel machine learning model named “LEAPS” that enables efficient protein function improvement from limited datasets. Conventional protein engineering requires large-scale experimental data, extensive expertise, and prolonged trial-and-error processes, making research execution heavily dependent on institutional funding and human resources. Consequently, significant barriers remain for student teams and small-scale laboratories attempting to engage in protein engineering. LEAPS substantially reduces these constraints and provides an accessible environment for researchers to perform multi-objective optimization of proteins. This model enables student teams participating in iGEM and researchers with limited resources to undertake functional improvements such as enzymatic activity enhancement and antibody affinity optimization, dramatically expanding research possibilities. Furthermore, we have developed and publicly released LEAPS as a web application, establishing a platform accessible to the broader research community. This model has the potential to promote data-driven protein engineering and accelerate research and development across all fields of life sciences. [Wiki](https://2025.igem.wiki/tsukuba) | [Official Page](https://teams.igem.org/5680)https://static.igem.org/peertube/streaming-playlists/hls/94209a0c-7944-4272-b1d0-509735effd2e/5bf593e3-242e-402a-9b0f-7a30a47be86d-master.m3u8https://video.igem.org/videos/embed/jhUg1bFGesgEun1foHEE1o8030172025-10-15T16:54:28.945ZYES2025 PresentationsNOhttps://video.igem.org/w/sEvTWDwTapdAQhte7JYQpohttps://video.igem.org/lazy-static/thumbnails/e2c04d47-2d4a-4a2d-b28d-844201ac7fe1.jpgBWYA: FeliSilence (2025) - Team Presentation [English]**Title:** FeliSilence **Description:** Cat allergies affect a substantial population globally and are mainly caused by a few feline proteins (e.g., Fel d 1, Fel d 2, Fel d 4, Fel d 7). We developed FeliSilence, an RNA interference (RNAi) approach that silences allergen transcripts to reduce allergy at the source. To quickly and safely test RNAi efficiency, we created an accessible yeast shRNA reporter platform through simple fluorescence readouts—ideal for student teams. Candidate shRNAs were filtered to minimize off-target effects, and in the yeast assay, twelve of fifteen shRNAs demonstrated active knockdown, presenting candidates for further implementation. Human Practices guided our project priority of reversible RNAi over gene editing, and we assessed delivery feasibility through modeling of siRNA activity and lipid nanoparticle (LNP) targeting. To tackle the challenge uniting private sectors, our entrepreneurship plan outlines a feasible pathway, emphasizing safety, regulatory alignment, and clear advantages over symptom-based allergy treatments. [Wiki](https://2025.igem.wiki/bwya) | [Official Page](https://teams.igem.org/5927)https://static.igem.org/peertube/streaming-playlists/hls/d7ee4ace-4817-41cb-8a66-ca529b1d2fec/ac8fb571-940c-4de6-b97a-beb15d8a8bb3-master.m3u8https://video.igem.org/videos/embed/sEvTWDwTapdAQhte7JYQpo8830172025-10-15T17:04:35.956ZYES2025 PresentationsNOhttps://video.igem.org/w/5idjeHZzrgpbGHZeD5EueZhttps://video.igem.org/lazy-static/thumbnails/7b6ad9d6-1192-4214-9a91-9a54d40f81ce.jpgFreiburg: Concave (2025) - Team Presentation [English]**Title:** Concave **Description:** Concave - Generating and applying antibody alternatives. With the Concave toolkit, we are developing the future of antibody alternatives. Our focus is improving the accessibility of novel protein binder development, aiming to eliminate barriers in research. To achieve this, our project combines novel protein binders called Repebodies with an in vivo retron-based mutation system and a high-throughput in vivo selection system. This enables the production of a large library of variable Repebodies with diverse binding affinities and the selection for the protein binder best suited for any protein of interest. Additionally, we have developed the very first Repebody-targeting-chimera to be employed in targeted protein degradation. Repebodies can be applied in a multitude of fields, from analytics to diagnostics and therapeutics. With Concave we make variable protein binders more accessible, affordable, and ethical. Concave - create your own Repebodies anywhere, anytime! If you want to learn more, you can visit our website: https://2025.igem.wiki/freiburg/ [Wiki](https://2025.igem.wiki/freiburg) | [Official Page](https://teams.igem.org/5672)https://static.igem.org/peertube/streaming-playlists/hls/22cbc9aa-e1a7-44d2-b5c9-88f79db81a2b/56c29583-ca50-4ed3-bcca-a3053e1217b9-master.m3u8https://video.igem.org/videos/embed/5idjeHZzrgpbGHZeD5EueZ8790822025-10-15T16:56:36.896ZYES2025 PresentationsNOhttps://video.igem.org/w/bHh214GnteCcE6WtQPhQEbhttps://video.igem.org/lazy-static/thumbnails/a74f3888-fd4c-4609-bff6-880eb80a91b4.jpgGreatBay-SCIE: ArMOLDgeddon, Safe and Efficient Mold Eliminator (2025) - Team Presentation [English]**Title:** ArMOLDgeddon, Safe and Efficient Mold Eliminator **Description:** Accounting for up to 20% of all respiratory allergy cases in humid areas, reaching a pervalence of around 30% in many countries around the world, indoors mold problem comprises one of the most serious threat to public health. To tackle this risk, GreatBay-SCIE 2025 devised a brand new mold killer, ArMOLDgeddon. Harnessing the antifungal properties of enzymes chitinase, glucanase, lysozyme and monoterpenoid geraniol, ArMOLDgeddon provides a safe and effective alternative to current mold removers. Chitinase and glucanase degrade critical structural polymers of the mold cell wall, while lysozyme magnifies the damage through cationic interaction with the cell wall components and disruption of fungal membranes. Geraniol, apart from furthering the attack on fungal membrane, provides a pleasant fragrance. Furthermore, with the help of artificial intelligence and strong carbohydrate binding domains, ArMOLDgeddon evolves and improves, expediting towards the goal of the annihilation of mold-related diseases, and eradicating this pervasive global health threat. [Wiki](https://2025.igem.wiki/greatbay-scie) | [Official Page](https://teams.igem.org/5614)https://static.igem.org/peertube/streaming-playlists/hls/56bec08d-612b-43e2-9313-68ff10c8d296/8abc5bd8-0010-4876-af19-fc3248293de5-master.m3u8https://video.igem.org/videos/embed/bHh214GnteCcE6WtQPhQEb88852682025-10-15T17:58:29.374ZYES2025 PresentationsNOhttps://video.igem.org/w/uKQpbTpuR9vVzqknqSht4Khttps://video.igem.org/lazy-static/thumbnails/f79d00d8-c066-4246-8018-a477e667c342.jpgCAFA-Beijing: Recombinant Collagen Peptide and Novel Microneedles - ChronoKolla (2025) - Team Pre...**Title:** Recombinant Collagen Peptide and Novel Microneedles - ChronoKolla **Description:** We have designed a fusion peptide sequence aimed at addressing issues in the field of medical aesthetics. The fusion peptide primarily comprises several functional peptide segments. Firstly, to inhibit melanin production in the skin, we employed computer-aided methods to design a competitive peptide analog of the melanocyte-stimulating hormone receptor (α-MSH), which serves to block melanin synthesis. To delay skin aging and promote collagen synthesis, we incorporated segments that mimic growth factors into the fusion peptide sequence, which can stimulate skin cells to produce collagen. Additionally, we added a cell-penetrating peptide segment to the end of the fusion peptide to facilitate the entry of these compounds into skin cells for effective action. We utilize Escherichia coli DH5α for the production of these fusion peptides and have designed a microneedle-based delivery system to administer these compounds effectively. [Wiki](https://2025.igem.wiki/cafa-beijing) | [Official Page](https://teams.igem.org/5920)https://static.igem.org/peertube/streaming-playlists/hls/e8deb128-23cb-46b5-927c-5223b47c9305/9c52dbc0-d44a-4c9d-9d7d-6faf2fa42039-master.m3u8https://video.igem.org/videos/embed/uKQpbTpuR9vVzqknqSht4K8430212025-10-15T16:58:59.817ZYES2025 PresentationsNOhttps://video.igem.org/w/1pywEbHCgFTouLdsQJuwpEhttps://video.igem.org/lazy-static/thumbnails/44b930f1-bb13-4f7b-bf35-6e4df1c37420.jpgSZ-SHD: A.L.G.E.A (2025) - Team Presentation [English]**Title:** A.L.G.E.A **Description:** Heavy metal pollution poses a growing threat to both ecosystems and human health due to industrial activity. To address this challenge, our iGEM team is engineering the cyanobacterium Synechocystis sp. PCC 6803 as a sustainable platform for heavy metal bioremediation. We have introduced genes encoding phytochelatin synthases (PCSs) and metallothioneins (MTs) under a urea-inducible promoter, enabling the cells to efficiently chelate and reduce metals ions such as cadmium, lead, zinc, and copper into nano particles. To reduce the harvest cost, we developed a self-aggregation system by inducing limonene production, allowing for energy-efficient and chemical-free biomass recovery. In parallel, we are expressing PCS and MT genes in the moss Physcomitrella patens to compare bioremediation performance in different chassis. [Wiki](https://2025.igem.wiki/sz-shd) | [Official Page](https://teams.igem.org/5848)https://static.igem.org/peertube/streaming-playlists/hls/034a2735-f92c-4ccf-8b55-f38ccf36a314/450edc5a-6560-4ba4-b648-25f173b8d081-master.m3u8https://video.igem.org/videos/embed/1pywEbHCgFTouLdsQJuwpE7620182025-10-15T16:53:08.575ZYES2025 PresentationsNOhttps://video.igem.org/w/9SZRMzND8J7wFREg9EFmLmhttps://video.igem.org/lazy-static/thumbnails/b08bf2ca-465f-4b32-b5b9-5ebc37c864c1.jpgHongKong-UCCKE: A Proactive Containment System to prevent bed bug infestation (2025) - Team Prese...**Title:** A Proactive Containment System to prevent bed bug infestation **Description:** This video presents our project to combat the growing problem of bed bug infestations in Hong Kong through a proactive containment system. We propose using L-lactic acid as a chemical lure to detect bed bugs in advance, and to achieve a sustainable supply, we have genetically engineered E. coli for mass production. Our approach involves overexpressing the enzyme L-lactate dehydrogenase (L-LDH) to boost synthesis of the lure while knocking down the native ldhA gene to repress the expression of competing molecules. To ensure real-world effectiveness, we also characterized the diffusion properties of L-lactic acid and applied these results to optimize our detection device. In addition to our lab work, the project includes an educational component aimed at raising public awareness of the bed bug infestation problem and the importance of early detection. [Wiki](https://2025.igem.wiki/hongkong-uccke) | [Official Page](https://teams.igem.org/5703)https://static.igem.org/peertube/streaming-playlists/hls/47e7f44b-2d3f-4e51-a901-c39ef47ee614/41768db7-d053-4310-a525-638bddf8f9e7-master.m3u8https://video.igem.org/videos/embed/9SZRMzND8J7wFREg9EFmLm7650452025-10-15T17:08:10.693ZYES2025 PresentationsNOhttps://video.igem.org/w/3YCwu6gmKiwn5YrdEmADjQhttps://video.igem.org/lazy-static/thumbnails/fdad85a6-cff8-47bb-ade8-ad216177d3cb.jpgToulouse-INSA-UT: PFAway: the end of forever pollutants (2025) - Team Presentation [English]**Title:** PFAway: the end of forever pollutants **Description:** PFAS, also known as “forever chemicals,” are man-made compounds found in countless everyday products. Their remarkable resistance to heat, grease, and water comes from exceptionally strong carbon–fluorine bonds. But this stability comes at a cost: PFAS do not break down. Contamination is now global, and calls for a solution. We introduce PFAway, a real-world PFAS degradation process relying on two bacterial strains immobilized in carbon-activated beads. A newly identified strain, Labrys portucalensis F11, is first used to degrade long-chain PFAS into short-chain PFAS. Pseudomonas putida KT2240 then defluorinates short-chain PFAS through an engineered dehalogenase obtained by hypermutagenesis in E. coli. Dehalogenase variants are screened based on a fluoride biosensing aptamer implemented in droplet microfluidics. Improved dehalogenases are finally expressed in a modified P. putida that is made resistant to fluoride ions through the overexpression of the fluoride transporter FluC. This end-to-end process paves the way towards industrial-scale PFAS decontamination. [Wiki](https://2025.igem.wiki/toulouse-insa-ut) | [Official Page](https://teams.igem.org/5755)https://static.igem.org/peertube/streaming-playlists/hls/181a7029-a921-4b20-8fee-a12b6ffac448/c102de7f-5fb6-49d3-9c57-590030a4a335-master.m3u8https://video.igem.org/videos/embed/3YCwu6gmKiwn5YrdEmADjQ9025512025-10-15T17:06:35.183ZYES2025 PresentationsNOhttps://video.igem.org/w/rvL3L7JhYdaTsZRCkUdN4Khttps://video.igem.org/lazy-static/thumbnails/46191161-2e17-4ad4-931f-307ca3b20bef.jpgBostonU: FloraSynse: An overview of our dynamic diagnostic tool for women’s vagi... (2025) - Team...**Title:** FloraSynse: An overview of our dynamic diagnostic tool for women’s vaginal health **Description:** There is a clear need for an affordable and continuous method to monitor the vaginal microbiome, enabling early and personalized detection of bacterial vaginosis (BV). Our project addresses this challenge informed with insights from industry and clinical experts to identify reliable biomarkers for accurate BV tracking and diagnosis. We also designed a hardware tool to make vaginal health monitoring more accessible at home and aimed to create a lasting impact on women’s health conversations through local outreach and broader educational initiatives. [Wiki](https://2025.igem.wiki/bostonu) | [Official Page](https://teams.igem.org/5875)https://static.igem.org/peertube/streaming-playlists/hls/ce9c2e5e-42e7-4843-815c-ae614ab34dd1/7e7ab343-cc7d-496b-aa1f-94e55d63c4bd-master.m3u8https://video.igem.org/videos/embed/rvL3L7JhYdaTsZRCkUdN4K9030222025-10-15T17:07:13.807ZYES2025 PresentationsNOhttps://video.igem.org/w/gwXyd74s493x5KLhbRRZfDhttps://video.igem.org/lazy-static/thumbnails/79cf6cc0-57fb-4cab-812d-a8cb5ef84a62.jpgUCSC: safeTEA [English] (2025) - Team Presentation [English]**Title:** safeTEA [English] **Description:** The 2025 UCSC iGEM project, safeTEA (safe Targeted Extraction via Aptamers) aims to create a novel detoxification method for mycotoxins using a plasmid backbone with free single-stranded aptamer arms. [Wiki](https://2025.igem.wiki/ucsc) | [Official Page](https://teams.igem.org/5662)https://static.igem.org/peertube/streaming-playlists/hls/7dcba153-b856-40ba-bdcb-dead954d3b4d/c36e07b2-8ea4-491d-b56c-cc9d00b44130-master.m3u8https://video.igem.org/videos/embed/gwXyd74s493x5KLhbRRZfD8730362025-10-15T17:48:29.609ZYES2025 PresentationsNOhttps://video.igem.org/w/mHU3HUoeLfgYWfY5D69XBWhttps://video.igem.org/lazy-static/thumbnails/8480a141-6fd8-4dfd-abec-485af478207d.jpgWestlake: PRIME-Guard (2025) - Team Presentation [English]**Title:** PRIME-Guard **Description:** This is our iGEM Project Presentation video detailing the development, planning, and experimental results of our iGEM project, as well as the safety and human practice elements. [Wiki](https://2025.igem.wiki/westlake) | [Official Page](https://teams.igem.org/6014)https://static.igem.org/peertube/streaming-playlists/hls/a7d057c4-13c4-4fa3-b40f-30530d8d1490/a9c8bf52-2041-48d7-ac29-6926c190074c-master.m3u8https://video.igem.org/videos/embed/mHU3HUoeLfgYWfY5D69XBW6280122025-10-15T17:06:59.609ZYES2025 PresentationsNOhttps://video.igem.org/w/3BcWRv5rQuCD5r32fLpLEihttps://video.igem.org/lazy-static/thumbnails/fe9da369-d09e-41b1-a03b-1a924086bfcb.jpgLund: How the Trashformers tackle polyester textile waste! (2025) - Team Presentation [English]**Title:** How the Trashformers tackle polyester textile waste! **Description:** This video presents our project which aims to degrade polyester textile waste. Polyethylene terephthalate (PET), the main component of polyester textiles, dominates global fiber production and generates millions of tons of waste annually. Current recycling methods rely on energy-intensive chemical processes. Our project, Trashformers, tackles this challenge by developing a synthetic biology system for PET textile recycling and upcycling, designed to provide all the reaction components needed for efficient depolymerization and upcycling. We focus on enzymatic glycolysis to depolymerize PET into bis(2-hydroxyethyl) terephthalate (BHET), a monomer suited for re-polymerization. To achieve this, we designed a system based on E. coli BL21(DE3) and devices utilizing PETase hydrolases. We designed two complementary systems in parallel. The first employs enzymatic hydrolysis to degrade PET into terephthalic acid (TPA), and ethylene glycol required for subsequent glycolysis. The second uses rational enzyme design to create a novel enzyme that activates TPA with coenzyme A paving the way for PET upcycling through metabolic and chemical valorization. [Wiki](https://2025.igem.wiki/lund) | [Official Page](https://teams.igem.org/5651)https://static.igem.org/peertube/streaming-playlists/hls/151cabcd-302a-440e-8a27-c9c4583de235/1e8660b6-7203-4a19-b905-6a692535c0b3-master.m3u8https://video.igem.org/videos/embed/3BcWRv5rQuCD5r32fLpLEi8870342025-10-16T00:56:31.567ZYES2025 PresentationsNOhttps://video.igem.org/w/wRTG2v4xXZZuQjeWgSL76ghttps://video.igem.org/lazy-static/thumbnails/cffd8364-40be-452c-8d8a-5bd4f6fc7238.jpgSMU-Union-China: FluBlockers : Synthetic sentry at the nasal gate-variant-proof ... (2025) - Team...**Title:** FluBlockers : Synthetic sentry at the nasal gate-variant-proof armor against Influenza **Description:** Influenza A virus (IAV), characterized by its high mutability and cross-species transmission capability, has triggered multiple global pandemics. Existing vaccines and antiviral drugs face limitations such as short-lived protection, target escape, and drug resistance. To address the critical challenges in respiratory infection prevention, this project employs synthetic biology to engineer nasal-colonizing probiotics (Lactobacillus rhamnosus LGG). By sensing the virus, triggering a cascade response, and ultimately realizing virus neutralization, these probiotics are used to construct a multi-module synergistic chain closed-loop defense system. Additionally, a dual biosafety mechanism is incorporated, which enables rapid self-destruction triggered by environmental leakage or clinical risk while giving the population the freedom to control the intervention. This innovative strategy pioneers a novel synthetic biology-driven approach for influenza control, offering significant public health implications. [Wiki](https://2025.igem.wiki/smu-union-china) | [Official Page](https://teams.igem.org/5840)https://static.igem.org/peertube/streaming-playlists/hls/f9e975ae-035e-4952-bc4b-231865de3469/23c580df-08b6-478e-8c50-15a3ec8915f0-master.m3u8https://video.igem.org/videos/embed/wRTG2v4xXZZuQjeWgSL76g9000502025-10-16T01:03:05.448ZYES2025 PresentationsNOhttps://video.igem.org/w/jT4rrdTLX2jHSniR2Wi3FShttps://video.igem.org/lazy-static/thumbnails/c00cb3b8-e0c5-4ea6-8834-4e9963c7ceeb.jpgSFLS-Shenzhen: SFLS_Shenzhen: Eucaplyn - Biosynthesis of 1,8-Cineole (2025) - Team Presentation [...**Title:** SFLS_Shenzhen: Eucaplyn - Biosynthesis of 1,8-Cineole **Description:** Hi, we are SFLS_Shenzhen. This is the presentation video of our project, Eucaplyn - Biosynthesis of 1,8-Cineole: A Sustainable Approach to Anti-Acne Skincare. Here we shared our work on wet lab, human practice, entrepreneurship and sustainablity. Hope you enjoy it :) [Wiki](https://2025.igem.wiki/sfls-shenzhen) | [Official Page](https://teams.igem.org/5970)https://static.igem.org/peertube/streaming-playlists/hls/98e58c16-a560-4953-84e7-938c311528b8/4958640b-c3b0-489e-bdb6-fffdf360b2b4-master.m3u8https://video.igem.org/videos/embed/jT4rrdTLX2jHSniR2Wi3FS6950222025-10-15T17:07:24.826ZYES2025 PresentationsNOhttps://video.igem.org/w/hL9JP2n3xWj1X1LUawySFthttps://video.igem.org/lazy-static/thumbnails/8d25d7ad-c719-48c3-b669-3458b41e4d13.jpgOkinawa no Daigaku: MAMORI - DNA-powered pest detection (2025) - Team Presentation [English]**Title:** MAMORI - DNA-powered pest detection **Description:** Mangoes are both culturally and economically vital for Okinawa, small islands in southern Japan. However, Okinawan mango production is now under serious threat from yellow tea thrips. To address this challenge, our team developed MAMORI: Modular Agricultural Monitoring for On-site Rapid Pest Identification. MAMORI enables strain-level discrimination of thrips—essential for selecting effective pesticides—as well as early, unmanned detection, outbreak prediction, and coordinated island-wide strategy formulation. Our system combines LAMP-based molecular detection with a paper-based microfluidic device. We also designed automated hardware to trap insects, extract DNA, analyze results, transmit data, and replace test papers without human intervention. Furthermore, we built a predictive model that integrates outbreak data across Okinawa to forecast thrips population dynamics. With MAMORI, we aim to protect Okinawan mangoes, support sustainable agriculture on small islands, and provide a model for scalable, community-driven pest management. [Wiki](https://2025.igem.wiki/okinawa-no-daigaku) | [Official Page](https://teams.igem.org/5863)https://static.igem.org/peertube/streaming-playlists/hls/87bc5459-cf07-42b8-94dc-47b12b06e279/86aa72b4-f49d-41dd-9266-594a71046136-master.m3u8https://video.igem.org/videos/embed/hL9JP2n3xWj1X1LUawySFt8380312025-10-15T17:13:08.609ZYES2025 PresentationsNOhttps://video.igem.org/w/wetdj6Qy6jpTM8MNSXC1BMhttps://video.igem.org/lazy-static/thumbnails/2d1f7d8e-e30e-4111-bb1d-ff60ce36182e.jpgTJUSLS-China: Mining of Marine PET-Degrading Enzymes (2025) - Team Presentation [English]**Title:** Mining of Marine PET-Degrading Enzymes **Description:** The marine metagenome harbors numerous functional genes that have yet to be discovered and engineered for utilization. Currently, most of the known wild-type PET-degrading enzymes and engineered high-activity PET-degrading enzymes are derived from terrestrial sources and are suitable for functioning in low-salt concentration conditions, thus their application scenarios are greatly restricted by salt concentration. At present, microplastic pollution in marine environments is severe, and one major source of marine microplastics is high salinity wastewater. The main objective of our project is to solve the degradation problem of PET microplastics in high-salt water bodies by mining PET-degrading enzymes from the marine metagenomic database and conducting engineering modifications to enhance their activity. [Wiki](https://2025.igem.wiki/tjusls-china) | [Official Page](https://teams.igem.org/5806)https://static.igem.org/peertube/streaming-playlists/hls/f4d39956-3034-4130-b0ad-20bbb3a0126b/8b8cf86a-a17e-40b1-97d3-213eb6278b6d-master.m3u8https://video.igem.org/videos/embed/wetdj6Qy6jpTM8MNSXC1BM8970202025-10-15T17:22:40.376ZYES2025 PresentationsNOhttps://video.igem.org/w/pQQojQQ7MMfKMmFLUufQmohttps://video.igem.org/lazy-static/thumbnails/e42d1d5b-d0d9-47a0-8a22-dbc84675d1b9.jpgDUESSELDORF: STREAM - making bioproduction accessible (2025) - Team Presentation [English]**Title:** STREAM - making bioproduction accessible **Description:** In a world with limited resources, growing demand and a lot of unsustainable production practices we have to find a sustainable solution for the production of various chemicals. That is why our team STREAM has constructed a modular bioreactor (chemostat) that measures process parameters through ratiometric biosensors. We couple this to a specially engineered bacterial bioproduction strain that can utilize inducers to adjust expression levels of individual genes in a production pathway. Our strain features an easily replaceable production pathway, enabling flexible chemical synthesis. The system continuously monitors key parameters, allowing simple adjustment to variable conditions and maximisation of yield in real time. Additionally, our own chemostat lowers costs drastically. At just a fraction of the usual price, our modular chemostat is not only easier to use, but can also be built by anyone with our instructions. By lowering the barrier to entry, we aim to make sustainable research more accessible. We demonstrate the practical utility of our solution through two engineered bacterial strains that produce vanillin – a biotechnologically important chemical - and kaempferol, which possesses anticancer potential. Our system can optimize the vanillin and kaempferol production yield, opening the door to cost-competitive green biotechnology. [Wiki](https://2025.igem.wiki/duesseldorf) | [Official Page](https://teams.igem.org/5676)https://static.igem.org/peertube/streaming-playlists/hls/c113b559-c1fd-4df2-afa5-e770ea55ba4e/959c5de3-fbf3-48aa-b858-2bef510a132e-master.m3u8https://video.igem.org/videos/embed/pQQojQQ7MMfKMmFLUufQmo8980272025-10-15T17:17:44.033ZYES2025 PresentationsNOhttps://video.igem.org/w/2KUL7hZrrAK9S8vud7Xm2Ahttps://video.igem.org/lazy-static/thumbnails/205b3b1c-4ac5-4afa-af43-c837abbf2ea9.jpgMammothEdu-South: PHAntom Thalassic : From Salty-Water Strains to Ocean-Safe Pla... (2025) - Team...**Title:** PHAntom Thalassic : From Salty-Water Strains to Ocean-Safe Plastics **Description:** Plastic pollution is a global crisis demanding sustainable alternatives. Our project, PHAntom Thalassic, develops a cost-effective method to produce biodegradable polyhydroxyalkanoates (PHA) using deep-sea halophilic bacteria. Focusing on Halomonas strains LA4 and LA5, which thrive in high-salt, alkaline environments, we enable open, contamination-resistant fermentation and wastewater recycling. The phaCAB operon from Ralstonia eutropha (Cupriavidus necator) was introduced into Halomonas via E. coli S17-1λ conjugation, and PHA yield was assessed by Nile Red staining and GC-MS. Using CRISPR/Cas9, we integrated PHA genes into the Halomonas genome. Through extensive Human Practices, we engaged professors, fishermen, policymakers, and industry experts to align our work with real-world needs. Our PHA plastics are designed to degrade safely in marine environments, providing a sustainable solution to reduce ocean pollution and protect coral reefs and mangroves. [Wiki](https://2025.igem.wiki/mammothedu-south) | [Official Page](https://teams.igem.org/5776)https://static.igem.org/peertube/streaming-playlists/hls/0e3aa2b5-3e4f-4296-b102-b43aebdd6a24/c4b786d8-fa13-43aa-802d-f8e17580e9da-master.m3u8https://video.igem.org/videos/embed/2KUL7hZrrAK9S8vud7Xm2A8810282025-10-15T17:20:04.050ZYES2025 PresentationsNOhttps://video.igem.org/w/b3noJQaqG4zseCCLcoEVYZhttps://video.igem.org/lazy-static/thumbnails/6726619f-b054-4f0e-8297-cdacfaaa4db5.jpgIIT-Bombay: Aureolyze: IIT Bombay (2025) - Team Presentation [English]**Title:** Aureolyze: IIT Bombay **Description:** Aureolyze — Safely Degrading Biofilms An iGEM IIT Bombay 2025 Project About the Project: Biofilms formed by Staphylococcus aureus protect bacteria from antibiotics, leading to persistent and hard-to-treat infections. Aureolyze targets this challenge by using a biofilm-degrading enzyme derived from Staphylococcus epidermidis — Extracellular Serine Protease (Esp) — engineered for higher precision and safety. By enhancing Esp’s specificity toward Autolysin, the key structural component of biofilm formation, and minimizing off-target activity on human proteins, Aureolyze aims to create a next-generation therapeutic enzyme capable of dismantling bacterial biofilms without harming human tissues. When combined with Dispersin-B and conventional antibiotics, this dual-enzyme strategy offers a synergistic, broad-spectrum approach to combat biofilm-associated infections and tackle antimicrobial resistance at its roots. Through this innovation, we envision a world where biofilm-related infections are no longer an invisible threat to global health. ⸻ 🎬 Credits Voice Over & Script: 🎙 Arth Agrawal 🎙 Hitesh Meena 🎙 Nandini Goyal 🎙 Sabarish S Video Editing & Production: 🎞 Angel Singhvi 🎞 Yashika Singh Project Team: iGEM IIT Bombay 2025 – Aureolyze: Engineering Biology for Impact [Wiki](https://2025.igem.wiki/iit-bombay) | [Official Page](https://teams.igem.org/5633)https://static.igem.org/peertube/streaming-playlists/hls/51500eb5-54ac-4621-aaba-d2e69682f78d/ae134766-2490-4f86-a78d-424c231e015c-master.m3u8https://video.igem.org/videos/embed/b3noJQaqG4zseCCLcoEVYZ8975362025-10-15T17:13:31.733ZYES2025 PresentationsNOhttps://video.igem.org/w/cjDidDkCMJTzFEFFdzHYd2https://video.igem.org/lazy-static/thumbnails/06a371c0-9d3e-4d42-b5ef-2327884e3964.jpgEvry-Paris-Saclay: SOLARIS (2025) - Team Presentation [English]**Title:** SOLARIS **Description:** Billions of years ago, cyanobacteria transformed Earth’s atmosphere through carbon fixation, enabling the metabolic foundation of modern ecosystems. Yet, despite its central role, photosynthetic carbon fixation has not changed much since its origin. With SOLARIS, we reexamine this long-standing process from the perspective of synthetic biology, foundationally changing and advancing CO₂ fixation in cyanobacteria. Our solution lays the groundwork for photosynthesis 2.0 to overcome the kinetic and oxygen-sensitivity limitations of RuBisCO by introducing a distinct carbon fixation cycle supported by a carbonic anhydrase system we newly identified and confirmed for activity. This has the potential to make cyanobacteria far better at fixing CO₂ from the atmosphere and turning it into biomass. SOLARIS offers the tools and methodologies for rewriting core metabolic pathways with synthetic biology for optimizing synthetic carbon fixation cycles in vivo and in vitro, a foundational step toward programmable photosynthesis and a new generation of engineered phototrophs. [Wiki](https://2025.igem.wiki/evry-paris-saclay) | [Official Page](https://teams.igem.org/5617)https://static.igem.org/peertube/streaming-playlists/hls/5baee5eb-b364-4e71-aa30-4672c8226ad1/980a8e32-d372-4a47-9230-be14c214c613-master.m3u8https://video.igem.org/videos/embed/cjDidDkCMJTzFEFFdzHYd27720762025-10-15T17:11:12.232ZYES2025 PresentationsNOhttps://video.igem.org/w/86AKXRCa1vcLi5tRUqrXqLhttps://video.igem.org/lazy-static/thumbnails/62da8b9e-03b0-4dfa-9631-7ecec3c1fc67.jpgLYON: It’s Not Rocket Science: The PFAS Crisis & Synthetic Biology (2025) - Team Presentation [En...**Title:** It’s Not Rocket Science: The PFAS Crisis & Synthetic Biology **Description:** Here a educative and fun video to present our team's solutions to address the PFAS crisis using synthetic biology ! [Wiki](https://2025.igem.wiki/lyon) | [Official Page](https://teams.igem.org/5551)https://static.igem.org/peertube/streaming-playlists/hls/39781c1e-5aa7-416a-81c7-71a482d34800/4b5785bb-1229-4c00-8f13-b3f68ede43dc-master.m3u8https://video.igem.org/videos/embed/86AKXRCa1vcLi5tRUqrXqL8600352025-10-15T17:15:18.266ZYES2025 PresentationsNOhttps://video.igem.org/w/7bDMrWnJsrrSTLeaEeoPKihttps://video.igem.org/lazy-static/thumbnails/e1e33019-88d6-492e-9215-1c5daed7ceb0.jpgBIT-China: FABRIC——Fabrication through Advanced Bioengineered Resources and Inte... (2025) - Team...**Title:** FABRIC——Fabrication through Advanced Bioengineered Resources and Integrated Chromatics **Description:** The expression of style and personality through fashion colors is often shadowed by the heavy discharge of wastewater and the reliance on toxic fixatives. Our FABRIC project, however, utilizes synthetic biology to envision a cleaner, greener future. We engineered yeast strains to synthesize primary bio-dyes and developed a protein mordant that binds these dyes tightly to the fabric, effectively replacing chemical fixatives. Finally, the yeast's light-inducible system work in concert with our custom-developed hardware to empower users in realizing their ultimate fashion vision, establishing a truly sustainable dyeing solution. [Wiki](https://2025.igem.wiki/bit-china) | [Official Page](https://teams.igem.org/5866)https://static.igem.org/peertube/streaming-playlists/hls/32138dfb-2a94-400f-bf0d-62b606dd6d2b/8e590821-1182-42b1-9ffa-2bbe455f06e9-master.m3u8https://video.igem.org/videos/embed/7bDMrWnJsrrSTLeaEeoPKi8960462025-10-15T17:32:36.571ZYES2025 PresentationsNOhttps://video.igem.org/w/41E4P31pPxS3hmv6BsyMWihttps://video.igem.org/lazy-static/thumbnails/b75f0237-12d0-4e1f-a677-1bf77f641ff8.jpgTU-Eindhoven: BRIGHT: Bile acid Responsive Indicator for Gut Health Tracking (2025) - Team Presen...**Title:** BRIGHT: Bile acid Responsive Indicator for Gut Health Tracking **Description:** This is the project presentation video of team BRIGHT from TU Eindhoven. We take a look at our project timeline and the steps it took to get to the final BRIGHT point-of-care bile acid sensor. We discuss human practices and entrepeneurship and how the sensor works. [Wiki](https://2025.igem.wiki/tu-eindhoven) | [Official Page](https://teams.igem.org/5792)https://static.igem.org/peertube/streaming-playlists/hls/1862dff3-33e2-4bcb-a7b4-f488c475f4e1/3b9f9567-1e15-443e-9ac8-b6986eb7706c-master.m3u8https://video.igem.org/videos/embed/41E4P31pPxS3hmv6BsyMWi9030712025-10-15T17:14:54.224ZYES2025 PresentationsNOhttps://video.igem.org/w/v25U69bhtgzwNM3KjTuLCqhttps://video.igem.org/lazy-static/thumbnails/f2079759-9b4e-477e-8dff-bdcc8bc18d60.jpgYale: Click. Customize. Catalyze. (2025) - Team Presentation [English]**Title:** Click. Customize. Catalyze. **Description:** Protein therapeutics have transformed medicine over the past few decades. From insulin to monoclonal antibodies, these biologically derived drugs have allowed treatments to become more specific, potent, and compatible with our bodies. However, they still face many challenges; protein therapeutics often have short half-lives in the bloodstream and can trigger immune reactions that limit their effectiveness. To combat this, Yale iGEM uses an Orthogonal Translation System to flip the Central Dogma Theory on its head. We developed a foundational system for designing, integrating, and analyzing intra-protein modifications that will allow for the tunable extension of protein half-life through the conjugation of a fatty acid to a non-standard amino acid. The Molecular Dynamics, Docking, and Stability Ensemble Model is a key part of this system; it's the first computational pipeline specifically designed to predict which incorporation sites in a protein will retain catalytic activity after nonstandard amino acid incorporation. [Wiki](https://2025.igem.wiki/yale) | [Official Page](https://teams.igem.org/5977)https://static.igem.org/peertube/streaming-playlists/hls/eaffc890-c012-4d9b-a419-896719961100/7bd7604c-614a-4bdc-99c0-92de5f7d858f-master.m3u8https://video.igem.org/videos/embed/v25U69bhtgzwNM3KjTuLCq8900242025-10-15T17:16:44.015ZYES2025 PresentationsNOhttps://video.igem.org/w/dXBGkix52maxoWGUfqfX4rhttps://video.igem.org/lazy-static/thumbnails/d6ba5d76-1bb9-457e-b33a-8abbdb9b2adc.jpgNTHU-Taiwan: Revolutionizing Protein Design - Where Active Deep Learning Meets D... (2025) - Team...**Title:** Revolutionizing Protein Design - Where Active Deep Learning Meets Directed Evolution **Description:** Protein engineering underpins modern biotechnology, yet turning designed sequences into robustly functional biomolecules remains inefficient because datasets are small, screening is costly, and sequence–function mappings are uncertain. While the development of large protein models such as Alphafold has advanced structure prediction, consistent performance across diverse conditions is still difficult to achieve. We built a data-free active-learning generative protein-language model framework, Seed & Seek, cooperating with biological directed-evolution (using a coarse-to-fine tuning strategy), spanning both in vitro ePCR mutations and in vivo EcoRep systems. Using the SpyTag/SpyCatcher pair as a testbed, we targeted improved association rates and iteratively validated candidates with split-luciferase assays. By uniting computation with biological selection, our framework accelerates discovery of adaptable, high-performing protein variants. [Wiki](https://2025.igem.wiki/nthu-taiwan) | [Official Page](https://teams.igem.org/5928)https://static.igem.org/peertube/streaming-playlists/hls/68f191c0-1976-4b1a-ad07-1d5d73ee28f3/cf422c8a-121e-489b-915d-d80f15bf1688-master.m3u8https://video.igem.org/videos/embed/dXBGkix52maxoWGUfqfX4r8920232025-10-15T17:14:33.918ZYES2025 PresentationsNOhttps://video.igem.org/w/58RxriGbdsUCnbHsW6Dqjwhttps://video.igem.org/lazy-static/thumbnails/16769894-1660-4738-9957-950d86109fa9.jpgMcGill: Cohera: A New Foundation for Engineered Multicellularity (2025) - Team Presentation [Engl...**Title:** Cohera: A New Foundation for Engineered Multicellularity **Description:** Multicellularity brings about all of the complex life we see and interact with on a daily basis, allowing cells to be more than just the sum of their parts. Engineering multicellularity can be used to edit structures of complex life, and organize and optimize microbes for specific purposes. McGill iGEM proposes Cohera, a toolbax for engineering multicellularity that fundamentally changes the game of connections. Cohera brings standardization in an easy-to-use package, modularly applicable to many applications beyond our three case studies of focus. Watch our video to learn more! [Wiki](https://2025.igem.wiki/mcgill) | [Official Page](https://teams.igem.org/5556)https://static.igem.org/peertube/streaming-playlists/hls/217d4ad9-1cdb-43fd-8a15-569962b3656a/02434fdf-0558-4aa8-bcb8-8a57ecadc6e3-master.m3u8https://video.igem.org/videos/embed/58RxriGbdsUCnbHsW6Dqjw81654522025-10-15T17:14:12.200ZYES2025 PresentationsNOhttps://video.igem.org/w/2xRigMDQq5jNAFaCekJwX9https://video.igem.org/lazy-static/thumbnails/dfcc1700-ea99-46b0-be52-e0fcffe744a2.jpgNUDT-CHINA: Signal-controlled protein secretion in Mammalian cells. (2025) - Team Presentation [E...**Title:** Signal-controlled protein secretion in Mammalian cells. **Description:** Precise control of protein activity is fundamental to cell engineering and underpins the development of advanced cell-based therapies. While transcriptional and translational regulation provide powerful means of control in mammalian cells, post-translational regulation offers distinct advantages by enabling immediate and reversible responses to external stimuli. Here, we present SPARK (Signal-Programmable Activation of Regulated seCretion), which employs engineered molecular anchors to tether secretory vesicles carrying the target protein to the actin cytoskeleton and release them upon signal induction through protein dissociation or cleavage. We demonstrated that SPARK enabled efficient light- and chemically induced secretion of reporter proteins in HEK293T cells, exhibiting a markedly faster response than traditional transcriptional control systems. This platform provides rapid, tunable, and precise control of protein secretion, establishing a versatile foundation for on-demand therapeutic protein production and other applications that require fast and programmable protein release. [Wiki](https://2025.igem.wiki/nudt-china) | [Official Page](https://teams.igem.org/5819)https://static.igem.org/peertube/streaming-playlists/hls/0c8b938d-6889-4503-b1d7-a6a3b2f25516/56f4d3e7-0b60-4575-adab-142e60dfd384-master.m3u8https://video.igem.org/videos/embed/2xRigMDQq5jNAFaCekJwX98820302025-10-15T17:13:50.128ZYES2025 PresentationsNOhttps://video.igem.org/w/8ooep7xP7MYbRjqqirv6SThttps://video.igem.org/lazy-static/thumbnails/8ab14143-ee12-4a1c-af2b-86350a1bf5d6.jpgSJTU-Software: CASPIA (2025) - Team Presentation [English]**Title:** CASPIA **Description:** This video provides an overview of the project’s scientific foundation. Starting from the traditional spirit of discovery, represented by Shen Nong, it highlights the challenges of the trial-and-error approach and explains the Design–Build–Test–Learn cycle — a structured process central to modern synthetic biology. [Wiki](https://2025.igem.wiki/sjtu-software) | [Official Page](https://teams.igem.org/5711)https://static.igem.org/peertube/streaming-playlists/hls/3bd008ae-0c0e-487a-b542-d8a015584ff3/3bbeb99e-3d05-476a-aafa-9c189e939508-master.m3u8https://video.igem.org/videos/embed/8ooep7xP7MYbRjqqirv6ST7890102025-10-15T17:24:30.522ZYES2025 PresentationsNOhttps://video.igem.org/w/ix4wm6CPuGGa5eUGAdiZLkhttps://video.igem.org/lazy-static/thumbnails/10483674-702d-4f7f-aa11-08683b3fef3d.jpgExample: heart of synbio (2025) - Team Presentation [English]**Title:** heart of synbio **Description:** eee [Wiki](https://2025.igem.wiki/example) | [Official Page](https://teams.igem.org/5539)https://static.igem.org/peertube/streaming-playlists/hls/8e0195d9-6704-4574-941b-f2da2bef44b7/fc9f1506-def7-4742-8d50-203f8b1b6cb3-master.m3u8https://video.igem.org/videos/embed/ix4wm6CPuGGa5eUGAdiZLk6032025-10-15T17:00:24.591ZYES2025 PresentationsNOhttps://video.igem.org/w/6ezWETJkP5CskkDaxbi76Ahttps://video.igem.org/lazy-static/thumbnails/d4b4f3d9-d7e9-4f67-8d2b-5bcb4a79a198.jpgSYPHU-CHINA: Syphu-china (2025) - Team Presentation [English]**Title:** Syphu-china **Description:** This video details the inspiration behind our ATRA therapy for liver cancer, the construction of the plasmid, the total synthesis of ATRA, the development of models and software, and finally our HP liver cancer drug business data analysis platform. [Wiki](https://2025.igem.wiki/syphu-china) | [Official Page](https://teams.igem.org/5895)https://static.igem.org/peertube/streaming-playlists/hls/2a6347b9-bad7-472e-bcf6-4365a197d384/992583f6-8f93-4291-8498-7cff85bb4f04-master.m3u8https://video.igem.org/videos/embed/6ezWETJkP5CskkDaxbi76A8950142025-10-15T17:51:15.330ZYES2025 PresentationsNOhttps://video.igem.org/w/qmG13dgnYmbncMhMxd3C1Xhttps://video.igem.org/lazy-static/thumbnails/57e56ca4-6426-48a2-9728-88b13407b475.jpgMPA-USA: Engineered EcN for Neoeriocitrin Production in Colorectal Cancer Therapy (2025) - Team P...**Title:** Engineered EcN for Neoeriocitrin Production in Colorectal Cancer Therapy **Description:** Colorectal cancer (CRC) incidence is rising globally and increasingly affects people under 40. Current therapies are invasive and often cause severe side effects. We developed a precision therapeutic strategy using engineered Escherichia coli Nissle 1917 (EcN). Neoeriocitrin, a natural flavonoid with antioxidant, anti-inflammatory, and immunomodulatory activities, shows promise in CRC prevention and adjuvant therapy but faces limitations of low yield and high extraction cost. To overcome this, we reconstructed its complete biosynthetic pathway in EcN by introducing VvRHM, UGT73B2, and Cm1,2RhaT, enabling efficient and controlled production. To ensure biosafety, we designed a dual suicide system: arabinose-inducible pBAD triggers in vivo lysis, while low-temperature-inducible pCspA provides environmental containment, both cooperating with MazF. This engineered probiotic integrates high-yield biosynthesis with strict biocontainment, offering a safe, controllable, and effective adjuvant strategy for CRC therapy, particularly for young patients with early-onset disease. [Wiki](https://2025.igem.wiki/mpa-usa) | [Official Page](https://teams.igem.org/5964)https://static.igem.org/peertube/streaming-playlists/hls/c53edac1-dee5-4509-92eb-6407827f58f7/eafb79b9-ba45-4d26-b870-a121bceae76b-master.m3u8https://video.igem.org/videos/embed/qmG13dgnYmbncMhMxd3C1X8140372025-10-15T17:15:36.496ZYES2025 PresentationsNOhttps://video.igem.org/w/2sgpXh7rRQDKgTeRYetqR5https://video.igem.org/lazy-static/thumbnails/ea4ad118-912b-4307-8dd0-c3053be40112.jpgBYU-Provo: INARA: Illuminating Early Pregnancy and Miscarriage (2025) - Team Presentation [English]**Title:** INARA: Illuminating Early Pregnancy and Miscarriage **Description:** Our goal is use synthetic biology to develop a wearable biosensor that could measure progesterone levels in real time. This novel technology would provide women with access to precious, timely information during early pregnancy and accelerate research on pregnancy and miscarriage. This video is a promotion for iGEM Team BYU-Provo 2025, including interviews from human practices research and with team members, and highlighting Inara's extended vision and mission. [Wiki](https://2025.igem.wiki/byu-provo) | [Official Page](https://teams.igem.org/5705)https://static.igem.org/peertube/streaming-playlists/hls/0bc3f9ab-3731-46f5-91ff-5e289fda9546/bf4497e2-d5b7-482a-a313-770cb30a193d-master.m3u8https://video.igem.org/videos/embed/2sgpXh7rRQDKgTeRYetqR52630172025-10-15T17:03:51.707ZYES2025 PresentationsNOhttps://video.igem.org/w/gfy1XN38pQJffDGhPx7qVohttps://video.igem.org/lazy-static/thumbnails/dfd6ecc8-9558-4b87-800f-a02e5abb1409.jpgBrno Czech Republic: Affordable, local protein for every farm by programmable du... (2025) - Team...**Title:** Affordable, local protein for every farm by programmable duckweed **Description:** Dairy farmers are struggling to keep their farms profitable - the protein feed, the most crucial element, is also one of the most expensive components for them. The most popular protein source is soybean. It contributed to the loss of natural ecosystems in Brazil's tropical savanna. Duckweed, the fastest-growing plant on Earth, contains as much protein as soybeans and grows 10x faster. It is set to provide an affordable protein source for every farm. But duckweed, as promising as it looks, cannot match 3000 years of selective breeding of soybeans. To make it a crop, we need SynBio. We are developing a method for 5x faster genetic engineering of duckweed, constructing an autonomous cultivation system and a yield prediction model, and simplifying the scaling of duckweed. The first steps toward unlocking the massive potential of this tiny plant… To save farmers' money, the Cerrado savanna, and to make plants truly scalable. [Wiki](https://2025.igem.wiki/brno-czech-republic) | [Official Page](https://teams.igem.org/5642)https://static.igem.org/peertube/streaming-playlists/hls/7b81393d-f66a-42f4-9d7d-ce63d30c92b8/67842646-d18e-4e0c-be2e-392c4b133f4e-master.m3u8https://video.igem.org/videos/embed/gfy1XN38pQJffDGhPx7qVo82305132025-10-15T17:17:27.827ZYES2025 PresentationsNOhttps://video.igem.org/w/svGatz4Wz4YyDfFkX8bvWjhttps://video.igem.org/lazy-static/thumbnails/209f7438-65ae-46a9-b4bc-52f18d02a748.jpgThailand-RIS: Plants vs. PET: Combatting Microplastic Pollution with Plant-Based... (2025) - Team...**Title:** Plants vs. PET: Combatting Microplastic Pollution with Plant-Based PETase **Description:** Plastic pollution has become a global crisis, with Thailand ranking sixth in mismanaged plastic waste and contributing over 1 million tonnes to the oceans annually (Jambeck et al. 2025). Microplastics are now detected across ecosystems in Thailand—from 80% of sampled marine organisms to tap water, air, and agricultural soils—threatening biodiversity, food security, and human health (Chanpiwat, 2021). Among plastics, polyethylene terephthalate (PET) is the most prevalent, accounting for 37% of mismanaged waste. The discovery of PETase from Ideonella sakaiensis in 2016 revealed a promising route for enzymatic PET degradation, yet microbial expression limits large-scale application. Here, the Thailand-RIS iGEM 2025 team presents the first demonstration of PETase expression in a multicellular system: plants. While stable transformation remains ongoing, we successfully achieved transient expression of PETase fused with an alpha-amylase 3S signal peptide into Nicotiana benthamiana, enabling extracellular secretion of the enzyme. By establishing proof of concept for plant-based PETase expression, we hope to pave the way for scalable, sustainable bioremediation strategies that integrate prevention and active degradation of plastic pollution. [Wiki](https://2025.igem.wiki/thailand-ris) | [Official Page](https://teams.igem.org/5619)https://static.igem.org/peertube/streaming-playlists/hls/d6b2ed11-443f-4bc7-907f-e68a0aede002/e61f46db-6493-4e2a-b412-9b8235e9f735-master.m3u8https://video.igem.org/videos/embed/svGatz4Wz4YyDfFkX8bvWj8990352025-10-16T01:10:03.344ZYES2025 PresentationsNOhttps://video.igem.org/w/b3VtpzmPYDyHfQPkbfV6eAhttps://video.igem.org/lazy-static/thumbnails/e8cba203-4c47-4a0e-973a-66fe794b2fa6.jpgBASIS-China: SnaPFAS (2025) - Team Presentation [English]**Title:** SnaPFAS **Description:** Perfluoroalkyl and Polyfluoroalkyl Substances (PFAS) contamination is a global concern due to their persistence in water, widespread presence in daily life, and long-term health risks. Among them, perfluorooctanoic acid (PFOA) is the most prevalent and hazardous pollutant. By developing an integrated PFOA & fluoride ions biosensor, optimizing PFOA-degrading enzymes, and designing a systematic hardware platform, we aim to establish a PFOA governance system that integrates detection, biodegradation, and safe processing, providing a practical solution to mitigate environmental and health impacts. [Wiki](https://2025.igem.wiki/basis-china) | [Official Page](https://teams.igem.org/5610)https://static.igem.org/peertube/streaming-playlists/hls/5163d3e7-b7b6-4c6d-a19b-e032d945f270/f1824486-4a93-4ff7-8699-8342b2d11b84-master.m3u8https://video.igem.org/videos/embed/b3VtpzmPYDyHfQPkbfV6eA9035572025-10-15T17:32:57.434ZYES2025 PresentationsNOhttps://video.igem.org/w/qmDCFuompBffj2rAvtpXcJhttps://video.igem.org/lazy-static/thumbnails/b3e3af7a-3ef0-48ca-b957-564fb7b358db.jpgAIS-China: HullGuard: Bioengineering the Future of Clean Seas (2025) - Team Presentation [English]**Title:** HullGuard: Bioengineering the Future of Clean Seas **Description:** Biofouling has silently plagued the maritime industry for centuries — fueling emissions, increasing maintenance costs, and poisoning our oceans with toxic paints. HullGuard, developed by AIS-China 2025, pioneers a new paradigm: harnessing synthetic biology to produce Zosteric Acid, a natural antifouling compound that stops marine attachment before it begins. Through enzyme engineering, metabolic optimization, and real-world validation, we present a sustainable, high-efficiency solution designed to transform global shipping. This is not just a project — it’s a blueprint for a cleaner, safer ocean future. [Wiki](https://2025.igem.wiki/ais-china) | [Official Page](https://teams.igem.org/5715)https://static.igem.org/peertube/streaming-playlists/hls/c53d6521-da67-4cc3-a9d8-f781c2b54acc/bfad0ba0-3b98-4009-a3cd-8c6793d39187-master.m3u8https://video.igem.org/videos/embed/qmDCFuompBffj2rAvtpXcJ88101002025-10-15T17:26:22.092ZYES2025 PresentationsNOhttps://video.igem.org/w/2fm8cYmNbW2YgQBuFfma2ehttps://video.igem.org/lazy-static/thumbnails/d681b40a-e9ac-4758-8228-3a2316d3bee2.jpgMBG-DUTh: Chitinator et al.: Turning Chitin Waste into Bioactivation Power (2025) - Team Presenta...**Title:** Chitinator et al.: Turning Chitin Waste into Bioactivation Power **Description:** Our iGEM MBG DUTh 2025 project, Chitinator et al., pioneers a sustainable biotechnology approach to transform crustacean waste into valuable bioactivators for agriculture. By engineering Bacillus subtilis to express a dual chitinase fusion enzyme, we aim to achieve efficient chitin degradation and promote eco-friendly crop growth. This presentation highlights our design, experiments, and vision toward a circular bioeconomy, from waste to wonder. [Wiki](https://2025.igem.wiki/mbg-duth) | [Official Page](https://teams.igem.org/5994)https://static.igem.org/peertube/streaming-playlists/hls/0a19f415-3748-4a78-9432-4e3bcdcba06b/801d5b22-6f0e-465e-a685-090ace2dffc0-master.m3u8https://video.igem.org/videos/embed/2fm8cYmNbW2YgQBuFfma2e8480242025-10-15T17:23:18.790ZYES2025 PresentationsNOhttps://video.igem.org/w/5SPJaD9MGT7qjQJExsVzAJhttps://video.igem.org/lazy-static/thumbnails/150e4497-6c60-425a-ba4c-ac68763441d9.jpgKCISLK-Taiwan: LarVase: Bioengineering Cellulase with YebF-Mediated Secretion fo... (2025) - Team...**Title:** LarVase: Bioengineering Cellulase with YebF-Mediated Secretion for Biomanufacturing and Food Waste Degradation **Description:** Food waste has a huge impact on our planet. It destroys habitats, emits huge amounts of greenhouse gases, and threatens society deeply. Currently, one of the most sustainable methods is using black soldier fly larvae to degrade food waste. However, black soldier fly larvae are unable to efficiently digest cellulose, suggesting that improving the degradation process could enhance overall conversion efficiency and lower the costs associated with food waste treatment. LarVase aims to mass-produce endo-1,4-β-glucanase, a cellulase originating from Bacillus subtilis, through cloning into an E. coli BL21 expression vector. With our specially designed plasmids, we used YebF, a carrier protein having a similar function as a signal peptide, to be able to transport endo-1,4-β-glucanase outside the cell. This will lower the current costs of enzyme production while maintaining environmental sustainability. [Wiki](https://2025.igem.wiki/kcislk-taiwan) | [Official Page](https://teams.igem.org/5626)https://static.igem.org/peertube/streaming-playlists/hls/277d27ec-687c-4f9e-af41-aae5e144c04a/a01d9f01-0dc4-49fb-a209-3bcfc782bb2e-master.m3u8https://video.igem.org/videos/embed/5SPJaD9MGT7qjQJExsVzAJ8690422025-10-15T17:17:00.398ZYES2025 PresentationsNOhttps://video.igem.org/w/b2gNnyzYW6snANHoYDBnZThttps://video.igem.org/lazy-static/thumbnails/4d131f0b-c63c-4bc0-aea4-1ccf9c7e30f4.jpgNIS-Kazakhstan: HEK-293T-based biosensor for hydroquinone detection and toxicity... (2025) - Team...**Title:** HEK-293T-based biosensor for hydroquinone detection and toxicity assessment **Description:** Our project focuses on developing a HEK-293T-based biosensor for hydroquinone detection in cosmetics. Our biosensor provides a quick, reliable and ethical solution. In this video, we introduce the problem of unsafe cosmetic ingredients, explain our approach and our main human practices. [Wiki](https://2025.igem.wiki/nis-kazakhstan) | [Official Page](https://teams.igem.org/6025)https://static.igem.org/peertube/streaming-playlists/hls/5128ddfe-9319-4cfc-8e39-b5e075e5e0d9/37c77107-7ed9-4095-b65f-47a8e3dfae12-master.m3u8https://video.igem.org/videos/embed/b2gNnyzYW6snANHoYDBnZT8290222025-10-15T17:18:07.442ZYES2025 PresentationsNOhttps://video.igem.org/w/7AQorskZDCGEgnGqhbUgF5https://video.igem.org/lazy-static/thumbnails/6a2d7d0d-bea0-445d-88de-a1d650c99a93.jpgUCAS-China: PROTATO: Proteolysis-based Detection for P.s. pv. tomato Affected To... (2025) - Team...**Title:** PROTATO: Proteolysis-based Detection for P.s. pv. tomato Affected Tomato **Description:** Early detection of plant pathogens is essential for reducing crop losses, yet most diagnostic systems remain laboratory-bound. We developed PROTATO: Proteolysis-based Detection for Pseudomonas syringae pv. tomato Affected Tomato, a cell-free and protein logic–based biosensing platform enabling on-site pathogen detection. PROTATO integrates a coiled-coil–mediated chain exchange reaction as its molecular logic core and a dual-input AND gate that responds specifically to the pathogen effector AvrRpt2 protease and the phytotoxin coronatine (COR), reconstituting split luciferase, GFP, or trehalase reporters. A positive-feedback loop amplifies protease activity, improving detection sensitivity and signal strength. To enable field deployment, we engineered the PROTATO KIT, a 3D-printed electrochemical device that converts glucose signals into electronic readouts via glucose oxidase–modified electrodes and microcontrollers. Portable (Air) and scalable (Pro) versions support diverse agricultural applications. Our project establishes a generalizable framework for cell-free protein logic, advancing low-cost biosensing for crop protection and beyond. [Wiki](https://2025.igem.wiki/ucas-china) | [Official Page](https://teams.igem.org/5647)https://static.igem.org/peertube/streaming-playlists/hls/3573f08a-6fed-413f-a2af-b36620a107b6/a1b10308-7029-464e-bacc-41fc30770a15-master.m3u8https://video.igem.org/videos/embed/7AQorskZDCGEgnGqhbUgF58470302025-10-15T17:25:27.188ZYES2025 PresentationsNOhttps://video.igem.org/w/ngjDBAXge9QdX3EUUm6mc3https://video.igem.org/lazy-static/thumbnails/e07e023c-7a7c-420d-8916-0395bb00995a.jpgXJTLU-Software: SPADE Intelligent Platform: Integrating Data to Support Antimicr... (2025) - Team...**Title:** SPADE Intelligent Platform: Integrating Data to Support Antimicrobial Peptide R&D Against Global Antibiotic Resistance Crisis **Description:** SPADE is not simply 'one database, two tools,' but an intelligent platform that accelerates antimicrobial peptide discovery and deeply empowers scientific decision-making. The database is the 'soil,' RAG is the 'archaeologist,' and AOMM is the 'prophet.' Together, they are key to advancing antimicrobial peptide research from 'experience-driven' to 'data-intelligence-driven.' The platform is now officially online, and researchers are welcome to log in and experience it (official website link and QR code have been published) to jointly contribute to breakthroughs in the antimicrobial peptide field and respond to the AMR crisis. ... [Wiki](https://2025.igem.wiki/xjtlu-software) | [Official Page](https://teams.igem.org/5579)https://static.igem.org/peertube/streaming-playlists/hls/ac338f9b-6960-4062-970e-8e93da10f1d8/b7c8face-2b51-499c-8f5c-d7c290a23854-master.m3u8https://video.igem.org/videos/embed/ngjDBAXge9QdX3EUUm6mc38590172025-10-15T17:27:11.432ZYES2025 PresentationsNOhttps://video.igem.org/w/kGfXm55K5vh3uRw1pPH3rwhttps://video.igem.org/lazy-static/thumbnails/16f48b00-52c1-49ca-ba18-d24a07692d64.jpgLeiden: Splintein: Revolutionising Protein Engineering with Self Integrating Sca... (2025) - Team...**Title:** Splintein: Revolutionising Protein Engineering with Self Integrating Scaffolds **Description:** The video follows a lively interview-style show called “Good Morning iGEM!” where the host introduces Team Splintein from Leiden, a group of young scientists developing an innovative way to engineer proteins using split inteins. Through their Self Integrating Scaffolds (SIS) system, they can precisely insert post-translational modifications (PTMs), such as glycosylation, into proteins, paving the way for improved therapeutic antibodies and protein-based medicines. The conversation blends storytelling, scientific explanation, and humor as the team explains how SIS works, why glycosylation matters for drug development, and how they validated their concept both in the lab and in silico. They discuss challenges like “scarring” and how new developments may solve them, comparing their progress to how CRISPR evolved over time. Midway, the show transitions into a “breaking news” lab update, where real experimental results are shared, demonstrating the team’s excitement and discovery in real time. Beyond the science, the video highlights the team’s strong commitment to education and integrated human practices showing how they engaged with patients, experts, and the public through events, games, and handbooks to make synthetic biology more accessible. The script ends on an uplifting note about responsible innovation, collaboration, and the importance of inspiring new generations to embrace science rather than fear it. [Wiki](https://2025.igem.wiki/leiden) | [Official Page](https://teams.igem.org/5591)https://static.igem.org/peertube/streaming-playlists/hls/9f7c99e9-7bab-4dee-8d97-2773fa55c3c8/0e451c4e-097c-4844-a698-47ad4d401944-master.m3u8https://video.igem.org/videos/embed/kGfXm55K5vh3uRw1pPH3rw9030302025-10-15T17:33:55.497ZYES2025 PresentationsNOhttps://video.igem.org/w/2w52RtaiqhHV5zuGM7Mzfyhttps://video.igem.org/lazy-static/thumbnails/d70d3d42-8dd1-47d1-b53a-14bddafaf2f2.jpgFSU: Plastipeutics (2025) - Team Presentation [English]**Title:** Plastipeutics **Description:** Plastipeutics is dedicated to protecting human health from the growing threat of microplastics. By harnessing the power of synthetic biology, we are creating an innovative therapeutic that captures and aggregates microplastics in the gut, allowing the body to safely eliminate them. Our mission is to transform cutting-edge science into practical, life-changing solutions that remove microplastics , promote long-term wellness, and pave the way toward a healthier future in a world increasingly shaped by plastic. [Wiki](https://2025.igem.wiki/fsu) | [Official Page](https://teams.igem.org/5886)https://static.igem.org/peertube/streaming-playlists/hls/0c4befc0-c7ce-4c29-b15b-a768fdc98e78/045a760e-fb70-4f92-a081-9a395746932e-master.m3u8https://video.igem.org/videos/embed/2w52RtaiqhHV5zuGM7Mzfy9000282025-10-15T17:23:45.726ZYES2025 PresentationsNOhttps://video.igem.org/w/nRvk6ZSTvwmCkjFvggdssrhttps://video.igem.org/lazy-static/thumbnails/1075980d-b7ee-424b-b745-9b586c61f53c.jpgKULeuven: PhytoBlock - Let's Save the Future of Chocolate! (2025) - Team Presentation [English]**Title:** PhytoBlock - Let's Save the Future of Chocolate! **Description:** Black Pod Disease, caused by Phytophthora species, destroys up to 30% of global cocoa yield each year and threatens the livelihoods of farmers. Our project, PhytoBlock, harnesses the natural power of Bacillus subtilis, that is engineered to secrete antimicrobial peptides upon detection of Phytophthora species, hereby preventing Black Pod Disease. By offering an alternative to chemical fungicides, PhytoBlock protects cacao crops, reduces accumulation of chemicals in the environment, and supports long-term agricultural resilience. [Wiki](https://2025.igem.wiki/kuleuven) | [Official Page](https://teams.igem.org/5691)https://static.igem.org/peertube/streaming-playlists/hls/b0f96e73-e1ed-4de1-8147-ba2d95a3fc95/ae92a805-a9c0-4844-8a1a-a3386ebbe592-master.m3u8https://video.igem.org/videos/embed/nRvk6ZSTvwmCkjFvggdssr8915512025-10-15T17:20:52.266ZYES2025 PresentationsNOhttps://video.igem.org/w/3zsTA4otR6ztCsrA7cK5yQhttps://video.igem.org/lazy-static/thumbnails/a2044035-1a63-4ed9-b87d-b72fb2f4f3c7.jpgUNILA-LatAm: NANODEN - Nanobodies for Dengue (2025) - Team Presentation [English]**Title:** NANODEN - Nanobodies for Dengue **Description:** Dengue fever is one of the biggest public health challenges in Latin America. Cities such as Foz do Iguaçu (Brazil), Ciudad del Este (Paraguay), and Puerto Iguazú (Argentina) live with the impact of this arbovirus in a tropical climate, intense urbanization, and large flows of people. But what if biotechnology could transform the mosquito into part of the solution? The NANODEN Project comes up with an innovative proposal: to reprogram the symbiotic bacterium Serratia marcescens, present in the intestine of the Aedes aegypti mosquito, to produce nanobodies—small biomolecules capable of blocking the dengue virus before it multiplies. In this video, we tell the story of our project: from the reality experienced by our communities to the ideas that inspired us to seek new solutions to combat dengue. Through science, empathy, and innovation, we believe it is possible to transform the mosquito from a vector of disease into a dead end for the virus — and contribute to a healthier and more sustainable future. [Wiki](https://2025.igem.wiki/unila-latam) | [Official Page](https://teams.igem.org/5965)https://static.igem.org/peertube/streaming-playlists/hls/14de6497-403c-4f1b-abe8-aa1db1625328/3a78b7fb-d019-42d9-b565-f32753866148-master.m3u8https://video.igem.org/videos/embed/3zsTA4otR6ztCsrA7cK5yQ8935562025-10-15T17:41:37.741ZYES2025 PresentationsNOhttps://video.igem.org/w/sDEdSW6L8WbRi3BFv3VqwDhttps://video.igem.org/lazy-static/thumbnails/f55ba8e4-221a-494f-bb29-f1276567c3cb.jpgIonis-Paris: Spiky'Mune (2025) - Team Presentation [English]**Title:** Spiky'Mune **Description:** SPIKY'MUNE is an innovative project that combines plant biotechnology and public health to address a critical global health challenge: cholera vaccine accessibility in the world's most vulnerable, arid regions. Cholera, caused by Vibrio cholerae and transmitted through contaminated water, causes severe diarrhea and vomiting, leading to death in the most severe cases. This disease mainly affects sub-Saharan African and South Asian countries, where limited access to clean water and lack of hygiene create ideal conditions for outbreaks. Current vaccination strategies require a cold chain (2–8 °C storage) and involve high import costs. Furthermore, maintaining refrigeration is extremely difficult in regions where temperatures can reach 50 °C and power outages are frequent. Ongoing climate change amplifies these challenges, making vaccination even more difficult. Although cholera is a treatable and preventable disease, it still claims millions of lives each year due to barriers in vaccine distribution. To address this challenge, we developed an alternative to existing solutions: an edible, genetically modified cactus that produces cholera vaccine proteins. Our host plant, the prickly pear cactus (Opuntia ficus-indica) is already cultivated in these targeted areas. Robust, productive, and requiring little maintenance, it represents an ideal platform for local vaccine production. It regenerates after being cut, and its natural fibers could protect the vaccine proteins from stomach acidity. Using synthetic biology techniques, our goal is to modify Opuntia ficus-indica to make it produce the subunit B of the cholera toxin (CtxB). Using synthetic biology, our objective is to engineer Opuntia ficus-indica to express the B subunit of cholera toxin (CtxB). Our multi-step development strategy includes: 1.⁠ ⁠Bacterial transformation in Escherichia coli for gene construct validation. 2.⁠ ⁠Transient expression in Nicotiana benthamiana via A...https://static.igem.org/peertube/streaming-playlists/hls/d7cfae08-7c94-404c-82b8-3151ebf22d19/0f613381-78d6-45e6-940e-a3b4063c658c-master.m3u8https://video.igem.org/videos/embed/sDEdSW6L8WbRi3BFv3VqwD9030202025-10-15T17:36:24.212ZYES2025 PresentationsNOhttps://video.igem.org/w/hw4mz2PmQQQzEPW6hWU5J7https://video.igem.org/lazy-static/thumbnails/a576c3a0-1a70-4bc4-8e79-63af8a958d80.jpgCornell: PRoSPER - Martian Soil Remediation (2025) - Team Presentation [English]**Title:** PRoSPER - Martian Soil Remediation **Description:** Overview of Team Cornell's 2025 project PRoSPER: Planetary Removal of Soil Perchlorates and Enrichment Remediation! [Wiki](https://2025.igem.wiki/cornell) | [Official Page](https://teams.igem.org/5717)https://static.igem.org/peertube/streaming-playlists/hls/85c4995a-4f64-46d7-8730-caed35396eda/96a078fd-a9b4-4e4b-84c2-1ca3fa31c35b-master.m3u8https://video.igem.org/videos/embed/hw4mz2PmQQQzEPW6hWU5J79030852025-10-15T17:31:31.673ZYES2025 PresentationsNOhttps://video.igem.org/w/uycUbizLBnAfBBvsJbTRLuhttps://video.igem.org/lazy-static/thumbnails/18f4088b-719f-4710-a1bb-f11d99046945.jpgBohemiaBio: AleChemy - Engineering beer for sustainable future (2025) - Team Presentation [English]**Title:** AleChemy - Engineering beer for sustainable future **Description:** Beer is among the oldest and most widely consumed alcoholic beverages globally, with enduring popularity across diverse cultures and continents. The Czech Republic has long maintained the highest per capita beer consumption worldwide. A defining characteristic of Czech beer is its distinct bitterness, primarily derived from secondary metabolites present in hops (Humulus lupulus) introduced during the brewing process. Due to the increasing impact of climate change, hop cultivation is becoming progressively more challenging and economically demanding. To address this issue, we propose the heterologous expression of hop-derived biosynthetic pathways responsible for bitter compound production in Saccharomyces cerevisiae. By engineering brewing yeast to synthesize these key bitter metabolites in situ during fermentation, we aim to reduce the brewing industry’s reliance on traditional hop cultivation. This strategy also offers the potential to lower production costs and enhance consistency and control over the bitterness profile of the final product. Credits: script writing and presentation: Adrian Svoboda, Tomáš Iliaš, Alexandra Gombitová, Diana Gombitová, Aneta Salokyová, Aneta Schulmeisterová, Michaela Kučerová Video shooting and editing: Matěj Hloucha, Adrian Svoboda, Tomáš Iliaš, Michaela Kučerová, Zuzana Ruszová, Petr Kalina Actors: team member: Adrian Svoboda Hoppy: Zuzana Ruszová Whiteboard: Tomáš Iliaš Vioceover: Adrian Svoboda, Michaela Kučerová, Zuzana Ruszová [Wiki](https://2025.igem.wiki/bohemiabio) | [Official Page](https://teams.igem.org/5904)https://static.igem.org/peertube/streaming-playlists/hls/e73f043a-80b6-48c6-b407-e54590edced0/c98b0b3a-3121-4d5e-ad71-0c1575111db8-master.m3u8https://video.igem.org/videos/embed/uycUbizLBnAfBBvsJbTRLu7340412025-10-15T17:18:25.427ZYES2025 PresentationsNOhttps://video.igem.org/w/b3kwnhfsNFHdokp91HfZJFhttps://video.igem.org/lazy-static/thumbnails/0afd6fdc-1129-46c0-a15c-88da94ce0e8b.jpgSUSTech-BIO: The Elf Catcher of "Super Fungus" (2025) - Team Presentation [English]**Title:** The Elf Catcher of "Super Fungus" **Description:** To address the "super fungus" Candida auris (multidrug-resistant, highly pathogenic, high mortality), this project uses Acidovorax citrulli’s unique fungus-killing T6SS—unlike most T6SS that only target Gram-negative bacteria. Its structural components are reconstructed in E. coli BL21 as anti-C. auris engineered bacteria, formulated as lyophilized powder and activated via arabinose-containing hydrogel. A pH-sensitive promoter (Pasr) enhances specificity in C. auris’ acidic environment. A pBAD/pDUSK-regulated suicide switch controlling T6SS immunity proteins restricts survival to the hydrogel’s dark, arabinose-rich environment (blue light induces death), ensuring self-elimination outside and allowing controlled death timing. Wet-lab models predict optimal parameters; improved effector delivery boosts targeting, offering an innovative treatment. [Wiki](https://2025.igem.wiki/sustech-bio) | [Official Page](https://teams.igem.org/5873)https://static.igem.org/peertube/streaming-playlists/hls/514ee7ed-5e2b-42b8-8f09-b551151c16ef/352e9f9e-fb92-4951-a3d1-90c533cd913f-master.m3u8https://video.igem.org/videos/embed/b3kwnhfsNFHdokp91HfZJF8990822025-10-15T17:33:24.963ZYES2025 PresentationsNOhttps://video.igem.org/w/wvgNTnMPnVwJBF298LYASMhttps://video.igem.org/lazy-static/thumbnails/17fc130b-0246-447d-adf6-502ca73b61a5.jpgGroningen: CRIKIT: A CRISPR-based Diagnostic Kit for Antibiotic Resistance (2025) - Team Presenta...**Title:** CRIKIT: A CRISPR-based Diagnostic Kit for Antibiotic Resistance **Description:** Antibiotic resistance is one of the most critical emerging threats to global healthcare, with current projections indicating it will surpass cancer as a leading cause of mortality in the coming decades. Conventional methods for identifying antibiotic resistant infections are time-consuming, as they depend on culturing bacteria in the presence of antibiotics. This diagnosis delay often leads to trial-and-error treatment strategies, which not only compromise patient outcomes but also promote the spread of resistance. To address this challenge, we are developing CRIKIT, a rapid and versatile diagnostic tool based on CRISPR-Cas13 technology. CRIKIT uses programmable CRISPR guide RNAs (gRNAs) to target bacterial transcripts of specific antibiotic resistance genes. Upon recognition of its target, Cas13 is activated and initiates the collateral cleavage of nearby RNA. We make use of this property by adding a fluorophore-quencher reporter molecule that will generate a measurable fluorescent signal when Cas13 is activated. This mechanism provides a functional read-out of gene activity in real time, offering insight into active resistance mechanisms in bacteria. This dynamic, expression-based approach will enable clinicians to make rapid, targeted decisions about antibiotic therapies, reducing the reliance on empirical treatments and improving clinical outcomes. [Wiki](https://2025.igem.wiki/groningen) | [Official Page](https://teams.igem.org/5689)https://static.igem.org/peertube/streaming-playlists/hls/f70878ac-d6cc-4412-b63d-d440d9fb12a9/f23a8962-e689-4f85-890f-b97c60b7240f-master.m3u8https://video.igem.org/videos/embed/wvgNTnMPnVwJBF298LYASM7140362025-10-15T17:27:52.824ZYES2025 PresentationsNOhttps://video.igem.org/w/7EWDVcx5qXUDrQpGzVYoyDhttps://video.igem.org/lazy-static/thumbnails/1721bdf6-a990-4ff6-9527-b1ae7e581642.jpgHK-PLKNPLC: Designing a Thermostable Monellin Variant: A Next Generation Protein... (2025) - Team...**Title:** Designing a Thermostable Monellin Variant: A Next Generation Protein Sweetener **Description:** Sweet proteins offer a natural route to cutting added sugar. Monellin is a protein that is 90,000 times sweeter than sucrose but has limited use due to poor heat and pH stability. Our project aims to modify MNEI, a single-chain engineered variant of monellin, to create a thermostable sweetener that is applicable in real-world situations. An in silico protein design pipeline was developed for systematic design of thermostable MNEI variants. In brief, an exhaustive Rosetta point mutation scan was performed to assess all possible single and double mutations of MNEI. The resulting ΔΔG values were then used to rank mutations by predicting the folding free energy. Subsequently, molecular dynamics simulations were performed to assess the conformational stability of MNEI and its variants. The most stable variants were then cloned into pET-28a(+) and expressed in E. coli NiCo21(DE3) for future experimental validations. [Wiki](https://2025.igem.wiki/hk-plknplc) | [Official Page](https://teams.igem.org/5884)https://static.igem.org/peertube/streaming-playlists/hls/3606c6db-85b1-4a0f-a5e1-5d3631eec8ad/b293ac62-04d1-422a-abc4-1ccea2e43dfc-master.m3u8https://video.igem.org/videos/embed/7EWDVcx5qXUDrQpGzVYoyD7710192025-10-15T17:21:30.102ZYES2025 PresentationsNOhttps://video.igem.org/w/cNjo33zwww5EQixQzjGPYvhttps://video.igem.org/lazy-static/thumbnails/7cfe7ae2-6f30-422a-bc0a-13c1ce371af4.jpgOxford: CASPER: A Synthetic Platform to Combat Antimicrobial Resistance (2025) - Team Presentatio...**Title:** CASPER: A Synthetic Platform to Combat Antimicrobial Resistance **Description:** Antimicrobial resistance (AMR) is a silent pandemic claiming millions of lives each year as more pathogens evade existing treatments. CASPER (cell-based antimicrobial screening and programmable elimination response) offers an integrated platform that unites diagnostics and therapeutics into a single, accessible system. The diagnostic module overcomes limitations of PCR and lateral flow assays by using a two-step reaction that screens for bacterial presence and produces a clear color change as a visible output. This enables rapid, broad-range, and equipment-free detection suitable for low-resource settings. The therapeutic module introduces programmable mini cells and extracellular vesicles as DNA delivery shuttles capable of selectively recognizing bacterial targets and triggering cell death from within. By combining detection and response, CASPER provides a scalable and affordable solution to antimicrobial resistance with the potential to transform infection control and save millions of lives worldwide. [Wiki](https://2025.igem.wiki/oxford) | [Official Page](https://teams.igem.org/5554)https://static.igem.org/peertube/streaming-playlists/hls/5f8c10d2-2a0a-4fd6-a53a-10e951f29be9/2e9a2253-7c41-4df6-8d75-aee5a0c66d87-master.m3u8https://video.igem.org/videos/embed/cNjo33zwww5EQixQzjGPYv8720762025-10-16T01:05:10.910ZYES2025 PresentationsNOhttps://video.igem.org/w/jgQXD96amM21441WXSmAvJhttps://video.igem.org/lazy-static/thumbnails/167cf073-16a1-4fcd-bf81-5c4cee4dd744.jpgUTokyo: PENgUIN–Prime Editor and Novel prime editing guideRNAs for Understanding... (2025) - Team...**Title:** PENgUIN–Prime Editor and Novel prime editing guideRNAs for Understanding Intracellular Narratives– **Description:** While current biological tools can identify molecules, they cannot track the precise order of microRNA (miRNA) expression in single cells, creating a critical research bottleneck. Our technology, PENgUIN, overcomes this challenge. It uses a novel “miRNA switch Prime Editing” technique to sequentially record miRNA activity onto a “DNA Tape.” This tape can then be analyzed to reconstruct a complete timeline of expression at the single-cell level. PENgUIN holds the promise of unraveling the mechanisms behind complex medical problems, such as the heterogeneous differentiation of iPS cells and the acquisition of drug resistance in cancer. As a highly adaptable gene circuit component, it is also positioned to become a foundational tool that will drive the next generation of synthetic biology. [Wiki](https://2025.igem.wiki/utokyo) | [Official Page](https://teams.igem.org/5807)https://static.igem.org/peertube/streaming-playlists/hls/93fad31e-415a-4b53-b3e5-f6ca4c393da4/1655d70a-0a75-4eed-8000-02757446be8c-master.m3u8https://video.igem.org/videos/embed/jgQXD96amM21441WXSmAvJ7860292025-10-15T17:31:03.946ZYES2025 PresentationsNOhttps://video.igem.org/w/o3nR2W48k1Sx5pLejam4iXhttps://video.igem.org/lazy-static/thumbnails/91d67493-c9b7-497e-9e3c-f704123d4004.jpgNMU-China: Enteroplastivore (2025) - Team Presentation [English]**Title:** Enteroplastivore **Description:** With the widespread use of plastic products, a large amount of plastic waste gradually decomposes and breaks down, forming plastic fragments with a diameter of less than 5 millimeters, namely microplastics. Microplastics are difficult to decompose naturally and gradually accumulate in the human body. Microplastics can cause imbalance in the intestinal flora, trigger systemic inflammatory responses, and even potentially lead to tumors and cancers. Regarding the issue of how to remove microplastics from the human body, our team proposed to construct a symbiotic system of lactic acid bacteria and yeast, which secretes degrading enzymes to degrade the microplastic particles in the intestinal tract. In addition, this system can also regulate the balance of intestinal flora, enhance the intestinal barrier function, and reduce the oxidative stress caused by microplastics through antioxidant effects, thereby minimizing the possible damage to the body caused by microplastics. [Wiki](https://2025.igem.wiki/nmu-china) | [Official Page](https://teams.igem.org/5847)https://static.igem.org/peertube/streaming-playlists/hls/b27e0032-4469-4b47-a7ba-b045f7a7fbad/22e0e557-6000-471a-b469-d977bbe31b7c-master.m3u8https://video.igem.org/videos/embed/o3nR2W48k1Sx5pLejam4iX9000522025-10-15T17:39:45.285ZYES2025 PresentationsNOhttps://video.igem.org/w/7eTvquxCfuctvD2wEf5h5ahttps://video.igem.org/lazy-static/thumbnails/34e008f9-15f7-475f-8e44-ffcb17d8aefb.jpgDKU: DopaMine (2025) - Team Presentation [English]**Title:** DopaMine **Description:** Parkinson’s Disease (PD) is a neurodegenerative disorder caused by the progressive loss of dopaminergic neurons, leading to motor impairments such as tremors and rigidity. Current treatments rely on L-DOPA supplementation, but long-term use results in decreased efficacy and severe side effects. To address these limitations, we propose DopaMine: engineering Saccharomyces cerevisiae (S. cerevisiae) to biosynthesize and regulate L-DOPA production using the yeast codon-optimized CYP76AD6 gene from Beta vulgaris partnered with the AR2 gene from Arabidopsis thaliana. By integrating metabolic engineering and synthetic biology, our system aims to improve L-DOPA bioavailability while reducing treatment-related complications. The system incorporates sophisticated feedback mechanisms to maintain optimal L-DOPA levels, offering a potentially groundbreaking approach to PD therapy. [Wiki](https://2025.igem.wiki/dku) | [Official Page](https://teams.igem.org/5652)https://static.igem.org/peertube/streaming-playlists/hls/32873e53-5c32-4bb2-90ea-11afaf406971/fda6edf9-667c-43ef-b571-93e1c7710df3-master.m3u8https://video.igem.org/videos/embed/7eTvquxCfuctvD2wEf5h5a7490172025-10-15T17:35:20.660ZYES2025 PresentationsNOhttps://video.igem.org/w/3Gx7fAW4FooEVkRtnUfgfkhttps://video.igem.org/lazy-static/thumbnails/a97ec3a4-162a-47df-8638-6bbe024b2e04.jpgScience Tokyo: Xylego"a low-burden treatment that can be used in combination wit... (2025) - Team...**Title:** Xylego"a low-burden treatment that can be used in combination with existing therapies" **Description:** We developed Xylego, an engineered E. coli Nissle 1917 designed as a low-burden synbiotic therapy for Inflammatory Bowel Disease (IBD). Xylego integrates three key modules: (1) Colonization support – enables selective growth using xylitol, reducing administration frequency; (2) Mucosal healing – secretes epidermal growth factor (EGF) to promote epithelial repair and break the inflammatory cycle; and (3) Inflammation-dependent kill switch – a tetrathionate-sensing restriction–modification system that self-destructs after inflammation resolves, preventing long-term risks and antibiotic gene transfer. Xylego is expected to enhance remission rates, improve adherence, and provide a safe, adaptable platform for patient-tailored probiotic therapies. [Wiki](https://2025.igem.wiki/science-tokyo) | [Official Page](https://teams.igem.org/5631)https://static.igem.org/peertube/streaming-playlists/hls/15db32f0-192f-405b-b202-91d2fd452c2b/4426f524-d223-4484-8b14-06c46a7752c3-master.m3u8https://video.igem.org/videos/embed/3Gx7fAW4FooEVkRtnUfgfk8990202025-10-15T17:43:05.779ZYES2025 PresentationsNOhttps://video.igem.org/w/iTJMXobRZt8vcJ4r3Tjwhthttps://video.igem.org/lazy-static/thumbnails/2f31a81f-82e9-4740-b7f3-4e36104609cc.jpgWHU-China: LOGIC: Lasting Optimized Genetic Input Calculator (2025) - Team Presentation [English]**Title:** LOGIC: Lasting Optimized Genetic Input Calculator **Description:** Biological computing holds great promise, yet past engineered bacterial circuits for logic gates have suffered from excessive complexity, cumbersome operation, and reliance on multiple input substances. Our LOGIC project overcomes these problems by developing a novel approach to constructing a biocomputer—utilizing quorum sensing and spatial diffusion to form logic gates. For addition calculation, we construct high-pass and band-pass genetic circuits based on the quorum sensing (QS) system. Through the diffusion of QS molecules in solid media, we can build various logic gates and connect them to perform multi-bit binary calculations. For repetitive operation, we engineer a light-induced QS molecule degradation enzyme and a protein degradation tag to refresh the calculator. Building upon the calculator, we can also build accessories like result storage, decimal result display and latches, demonstrating its extensive prospects. Furthermore, we construct a LOGIC Toolkit with visualization software for future research. [Wiki](https://2025.igem.wiki/whu-china) | [Official Page](https://teams.igem.org/5646)https://static.igem.org/peertube/streaming-playlists/hls/90e4a944-3a40-4550-b297-681b0711a9f3/d435a377-88f5-42f2-90f4-463e6bbc61e5-master.m3u8https://video.igem.org/videos/embed/iTJMXobRZt8vcJ4r3Tjwht8670342025-10-15T17:37:45.149ZYES2025 PresentationsNOhttps://video.igem.org/w/rs7eZzNe1GZugE5Er8M5Hhhttps://video.igem.org/lazy-static/thumbnails/dac97dfa-cb49-4358-9bf1-aa6a922fdf5d.jpgBNU-China: V-CHARGEs (2025) - Team Presentation [English]**Title:** V-CHARGEs **Description:** ATP is essential for biosynthetic reactions but costly for large-scale applications. Polyphosphate kinase (PPK) can regenerate ATP from inexpensive polyphosphate (PolyP), yet its industrial use is limited by phosphate inhibition and poor stability. The BNU iGEM team developed V-CHARGEs (VLP-Coupled High-efficiency ATP Re-Generating Enzyme system), an innovative platform that integrates SlPPK with P22 virus-like particles (VLPs) and SpyTag/SpyCatcher coupling to achieve efficient ATP regeneration. By encapsulating SlPPK inside VLPs for protection and anchoring ATP-consuming enzymes outside, V-CHARGEs enables continuous ATP cycling with enhanced pH, portease and phosphate tolerance. This nanoconfined system provides a low-cost, stable, and modular solution for powering diverse ATP-dependent biosynthetic reactions, advancing sustainable biomanufacturing. [Wiki](https://2025.igem.wiki/bnu-china) | [Official Page](https://teams.igem.org/5872)https://static.igem.org/peertube/streaming-playlists/hls/ce19a69c-ca8b-471e-bf76-b02c5bf22a82/ada15cd0-faac-4cf9-9148-5975b833c4b4-master.m3u8https://video.igem.org/videos/embed/rs7eZzNe1GZugE5Er8M5Hh9030752025-10-15T17:47:19.810ZYES2025 PresentationsNOhttps://video.igem.org/w/rzmyRkQfJp8nY9CDkdDv9qhttps://video.igem.org/lazy-static/thumbnails/6f69d7b9-2a5f-4cc6-8606-c78b205ef1d2.jpgNCKU-Tainan: ByeFilm-Design bacterial strains capable of temperature-induced lys... (2025) - Team...**Title:** ByeFilm-Design bacterial strains capable of temperature-induced lysis to release enzymes targeting different biofilm components **Description:** ByeFilm is a synthetic biology system using engineered E. coli to secrete Dispersin B, Proteinase K, and DNase I, degrading biofilm polysaccharides, proteins, and eDNA to enhance antibiotic action. A λcI857 thermal lysis switch triggers enzyme release at ≥37 °C, ensuring localized activity and biosafety. This approach offers a minimally invasive treatment for prosthetic joint infections and shows potential against other biofilm-related conditions such as catheter infections, chronic wounds, and dental plaque. [Wiki](https://2025.igem.wiki/ncku-tainan) | [Official Page](https://teams.igem.org/6003)https://static.igem.org/peertube/streaming-playlists/hls/cf1caf76-4ee0-4e4c-8e2c-315176adb3a4/ed96ef3f-ceaf-480e-87f9-bd5f016915c2-master.m3u8https://video.igem.org/videos/embed/rzmyRkQfJp8nY9CDkdDv9q9010212025-10-15T17:38:13.219ZYES2025 PresentationsNOhttps://video.igem.org/w/kGvBNuggvcTf8L9u3GVnLphttps://video.igem.org/lazy-static/thumbnails/f4da8c5a-b7d6-483a-9036-d681ec1a0d40.jpgXJU-China: SILK:Stability-Integrated Industrialization Leveraging Key plasmids (2025) - Team Pres...**Title:** SILK:Stability-Integrated Industrialization Leveraging Key plasmids **Description:** The SILK project (Stability-Integrated Industrialization Leveraging Key plasmids) addresses the critical challenge of environmental sensitivity in industrial fermentation by harnessing Xinjiang’s extremophilic microbial resources. Xinjiang's diverse environment has fostered highly tolerant bacterial communities, whose natural plasmids encode evolutionarily shaped stress-resistance mechanisms. By isolating and sequencing these plasmids, our team identifies functional gene elements—such as tolerance to extreme pH levels—to construct standardized expression modules for industrial strains. Integrating nature's evolutionary solutions into bioreactor frameworks, the SILK project aims to enhance fermentation stability, reduce energy consumption for environmental control, and expand the synthetic biology toolkit for extreme environments—transforming Xinjiang's “microbial silk” into industrial resilience. [Wiki](https://2025.igem.wiki/xju-china) | [Official Page](https://teams.igem.org/5543)https://static.igem.org/peertube/streaming-playlists/hls/9f85a33b-ac6b-4338-ba4c-0da81378e30b/847f3642-7005-4e01-bb66-7bcbf9dd9a38-master.m3u8https://video.igem.org/videos/embed/kGvBNuggvcTf8L9u3GVnLp6750152025-10-15T17:40:17.173ZYES2025 PresentationsNOhttps://video.igem.org/w/33Po1XGnGDkjNmpngQZpNXhttps://video.igem.org/lazy-static/thumbnails/e436f17e-778e-4679-96a4-a2dbda68b40f.jpgMSP-Maastricht: CoreSpin: Modified Spidroin Proteins as Thermally Conductive Bio... (2025) - Team...**Title:** CoreSpin: Modified Spidroin Proteins as Thermally Conductive Bio-Engineered Materials for Heat Exchanger Enhancement **Description:** We are the MSP-Maastricht iGEM team of 2025, and we are tackling the climate crisis and global energy use by improving essential infrastructure using synthetic biology. [Wiki](https://2025.igem.wiki/msp-maastricht) | [Official Page](https://teams.igem.org/5817)https://static.igem.org/peertube/streaming-playlists/hls/1096f6ac-be11-4125-bbe7-d65f3f8487e7/7db7ddd8-b765-4b95-86b2-9b26d39c2008-master.m3u8https://video.igem.org/videos/embed/33Po1XGnGDkjNmpngQZpNX7940392025-10-15T17:34:45.002ZYES2025 PresentationsNOhttps://video.igem.org/w/pEsdnVAaSi84bMu8qpet19https://video.igem.org/lazy-static/thumbnails/86a8f429-e8ca-4efc-8729-5b5dfcaa31b1.jpgJilin-China: No Grain, No Gain：Ferulic-Acid-Induced GLP-1 Secretion for Metaboli... (2025) - Team...**Title:** No Grain, No Gain：Ferulic-Acid-Induced GLP-1 Secretion for Metabolic Health **Description:** To advance sustainable and programmable genetic regulation in synthetic biology, we engineered an orally deliverable microbial platform that functionally couples gene expression to dietary metabolites, embodying the principle of Medicine-Food Homology. By incorporating a ferulic acid-responsive regulatory circuit, our system achieves diet-inducible control of target gene expression under physiologically relevant conditions. A stabilized GLP-1 analogue was employed as a model payload to verify the system’s responsiveness and molecular reliability. Operational safety was ensured through a dual-layer safeguard that integrates an engineered bacterial delivery system and a quorum-sensing-based self-limitation mechanism. Guided by our 5C Human Practices framework, emphasizing co-design and reflective integration, our project demonstrates a responsible and modular approach to system construction. Collectively, this work establishes a versatile and robust platform for translating dietary signals into programmable genetic responses, offering new possibilities for foundational research in metabolic regulation and precision biodesign. [Wiki](https://2025.igem.wiki/jilin-china) | [Official Page](https://teams.igem.org/5917)https://static.igem.org/peertube/streaming-playlists/hls/bfa09b66-50e9-4788-8db7-5163c450010c/774a73ab-fed5-40c2-9a1d-0ab5c083479f-master.m3u8https://video.igem.org/videos/embed/pEsdnVAaSi84bMu8qpet199020592025-10-15T17:50:45.160ZYES2025 PresentationsNOhttps://video.igem.org/w/drYBWTozgPcUqUNtNWN5trhttps://video.igem.org/lazy-static/thumbnails/64a640e1-2896-4ebc-8f5e-3fb8fcbd5379.jpgMacquarie-Australia: MethaNO - Macquarie Australia (2025) - Team Presentation [English]**Title:** MethaNO - Macquarie Australia **Description:** Methanol Biosensor by Macquarie University [Wiki](https://2025.igem.wiki/macquarie-australia) | [Official Page](https://teams.igem.org/5787)https://static.igem.org/peertube/streaming-playlists/hls/64ce26be-2a5b-458e-83fe-5d52cc2ab9d7/e40b6f5b-614f-4ad1-98ec-36fc93563618-master.m3u8https://video.igem.org/videos/embed/drYBWTozgPcUqUNtNWN5tr9010242025-10-15T17:38:49.308ZYES2025 PresentationsNOhttps://video.igem.org/w/1JdLEuG4aSeyiYs1ty8qCYhttps://video.igem.org/lazy-static/thumbnails/09eadf38-9850-4481-b204-3903cc04b542.jpgAFMU-China: SynNotch-Engineered Macrophages for Ehanced Liver Cancer Therapy-A P... (2025) - Team...**Title:** SynNotch-Engineered Macrophages for Ehanced Liver Cancer Therapy-A Precision Immunotherapy **Description:** Liver cancer stands as one of the most lethal cancers globally, with a persistently low five-year survival rate. Confronted with the significant challenges traditional cell therapies face—including the tumor barrier, antigen heterogeneity, and the immunosuppressive microenvironment—can we find a solution? Here, the 2025-AFMU-CHINA iGEM team presents our answer: Syn-M, a macrophage-based therapy engineered with synthetic Notch (SynNotch). We pioneer targeting the liver-specific protein SLC17A2, rather than volatile tumor antigens, enabling Syn-M to precisely home to the liver. Upon activation, its built-in dual mechanism—simultaneously activating the P65/NF-κB pathway and blocking the SIRPα "don't eat me" signal—works synergistically to effectively remodel the tumor microenvironment, recruit T cells, and counteract immunosuppression. From our intelligent protein screening platform and iterative wet-lab validation, to an AI-powered CT analysis tool and an inclusive education project spanning all age groups and abilities, we demonstrate how to systematically translate a cutting-edge scientific concept into a comprehensive solution that combines scientific depth with humanistic warmth. This is not merely a technological breakthrough, but a paradigm shift in treatment. Join us as we witness how precise immunotherapy brings new hope to liver cancer therapy. [Wiki](https://2025.igem.wiki/afmu-china) | [Official Page](https://teams.igem.org/5968)https://static.igem.org/peertube/streaming-playlists/hls/05e51bb1-1f90-4ef7-97f6-bdc65d270fb8/2dfdbf18-0f9b-453b-b803-59a75e5356d8-master.m3u8https://video.igem.org/videos/embed/1JdLEuG4aSeyiYs1ty8qCY8730452025-10-15T17:36:48.014ZYES2025 PresentationsNOhttps://video.igem.org/w/jPPPTx35gsDBQKU5yPxzKAhttps://video.igem.org/lazy-static/thumbnails/df9801fb-9bf1-4e86-8c77-6dc288c62f80.jpgUCLouvain: SyntcoLAB (2025) - Team Presentation [English]**Title:** SyntcoLAB **Description:** During our IGEM journey, we tried to address an important but little-known issue: the difference between powdered milk and breast milk. In this video, discover our scientific project and our various sub-projects on education and inclusivity. [Wiki](https://2025.igem.wiki/uclouvain) | [Official Page](https://teams.igem.org/5897)https://static.igem.org/peertube/streaming-playlists/hls/9871ed3b-1402-4f8e-ad6e-1121b3c2da4c/7127b23f-0556-48da-9c29-709473490f20-master.m3u8https://video.igem.org/videos/embed/jPPPTx35gsDBQKU5yPxzKA8650142025-10-15T17:39:08.502ZYES2025 PresentationsNOhttps://video.igem.org/w/3uzfdBSijzSunJBqGgLMMihttps://video.igem.org/lazy-static/thumbnails/b50346a9-7270-4923-b848-3621464a8d38.jpgTU-Delft: Snaccine (2025) - Team Presentation [English]**Title:** Snaccine **Description:** Snaccine presentation video (TU Delft 2025) [Wiki](https://2025.igem.wiki/tu-delft) | [Official Page](https://teams.igem.org/5649)https://static.igem.org/peertube/streaming-playlists/hls/142f9746-7fe0-40da-9192-d04daf477ee7/ff2ac5c2-bc7a-49be-9821-da36993f59fb-master.m3u8https://video.igem.org/videos/embed/3uzfdBSijzSunJBqGgLMMi5955782025-10-16T00:54:46.109ZYES2025 PresentationsNOhttps://video.igem.org/w/11RCNA1WmHPjguuncMQcFahttps://video.igem.org/lazy-static/thumbnails/1e6a3e6b-dcbc-486d-9a0c-d0026f1cb9a8.jpgXMU-China: CRUSTA: Circular Reutilization of Untapped Seafood-shell: Transformat... (2025) - Team...**Title:** CRUSTA: Circular Reutilization of Untapped Seafood-shell: Transformation into Antimicrobial-preservatives **Description:** In our CRUSTA project, we designed and developed an innovative COS-based bio-preservation technology using principles of synthetic biology. This technology provides a green and efficient alternative to traditional chemical preservatives in the food industry. In our project, we achieved chitosan degradation via a secretion system, enhancing the antibacterial performance of the degradation products by 7.96-fold compared to the wild-type. This project not only has the potential to propel technological innovation and catalyze industrial advancement in food preservation but also aims to introduce advanced concepts of synthetic biology and eco-friendly preservation. These initiatives are expected to improve preservation efficiency, elevate food safety standards, and enhance environmental sustainability, thus bolstering market competitiveness and fostering the sustainable growth of the green food industry and the circular economy. [Wiki](https://2025.igem.wiki/xmu-china) | [Official Page](https://teams.igem.org/5549)https://static.igem.org/peertube/streaming-playlists/hls/001e969f-7b24-4fc2-b69f-a063a5f135db/58ebda9f-8130-4ad4-9eb2-16bade3812de-master.m3u8https://video.igem.org/videos/embed/11RCNA1WmHPjguuncMQcFa9025612025-10-15T17:47:47.323ZYES2025 PresentationsNOhttps://video.igem.org/w/3sZNSMTFfv9RXoG3HHj4p7https://video.igem.org/lazy-static/thumbnails/f8c964bf-c4e6-467a-adb0-1044d3649e23.jpgSKLBE-China: GoutBuster：Take it Before it Aches (2025) - Team Presentation [English]**Title:** GoutBuster：Take it Before it Aches **Description:** Addressing the pain points in hyperuricemia and gout treatment, the GoutBuster project designs engineered bacteria for targeted intestinal purine transport, pioneering a safe and effective new solution. Based on the YES301 engineered bacterium, the project optimizes through the DBTL cycle to develop a series of strains: YES302, YES303, and YES304. YES302 ensures biosafety by knocking out the smr resistance gene; YES303 enhances uric acid transport efficiency by screening the high-efficiency transporter UacT; YES304 boosts uric acid degradation capacity by expressing optimized uricase. Complementarily, a dynamic model and intelligent voice assistant calculate personalized dosages, while the Suprobiotics platform facilitates science popularization and communication. Hierarchical science outreach activities are conducted to promote synthetic biology knowledge and project industrialization, providing a replicable paradigm for metabolic disease treatment. [Wiki](https://2025.igem.wiki/sklbe-china) | [Official Page](https://teams.igem.org/5973)https://static.igem.org/peertube/streaming-playlists/hls/13f73dac-4a78-4347-bc97-d319d7438228/aad8d4c4-7822-43a8-9b94-f0409463ad41-master.m3u8https://video.igem.org/videos/embed/3sZNSMTFfv9RXoG3HHj4p79020192025-10-15T17:42:19.486ZYES2025 PresentationsNOhttps://video.igem.org/w/rMXDdTgKzU6AAJtr2bYAe4https://video.igem.org/lazy-static/thumbnails/f9e9b00c-0c61-47bc-a284-fcdb328b72dd.jpgEstonia-TUBI: Y.E.P. - Yeast Electron Production (2025) - Team Presentation [English]**Title:** Y.E.P. - Yeast Electron Production **Description:** To reduce harmful greenhouse gas emissions, renewable energy storage is critical. Lithium-ion batteries dominate but pose environmental risks from mining, production, and disposal. Microbial fuel cells (MFCs) offer a greener alternative: microorganisms oxidize organic waste, generating electricity while cleaning wastewater, providing sustained, low-carbon energy with fewer ecological impacts. In this project, we engineer yeast MFCs with enhanced electron storage and electron transfer capacity. We achieve that goal by elevating the Saccharomyces cerevisiae intracellular NADH pool and enhancing their extracellular electron transfer. Using the CRISPR/Cas9 genetic editing tool, we deleted genes encoding the key enzymes of glycerol and ethanol biosynthesis, and external mitochondrial NADH dehydrogenase. Engineered strains were tested in custom MFC hardware. To fully leverage the increased intracellular NADH levels, we propose the heterologous expression of fungal cellobiose dehydrogenase (CDH) on the yeast cell surface to enhance the cell’s ability to transfer electrons to electrodes. Sound effects from https://quicksounds.com [Wiki](https://2025.igem.wiki/estonia-tubi) | [Official Page](https://teams.igem.org/5944)https://static.igem.org/peertube/streaming-playlists/hls/d0df3a02-ac7d-4a87-80eb-352e501a787d/414bb07d-275f-4f45-8cd5-311642633e88-master.m3u8https://video.igem.org/videos/embed/rMXDdTgKzU6AAJtr2bYAe49020392025-10-15T17:49:41.154ZYES2025 PresentationsNOhttps://video.igem.org/w/uviJhLX1K7ywUCVW65tLpzhttps://video.igem.org/lazy-static/thumbnails/5e20603a-3522-4c0b-8365-57e01afd0377.jpgSMBU: Hepzero: supressing the expression of HBV genes (2025) - Team Presentation [English]**Title:** Hepzero: supressing the expression of HBV genes **Description:** 254 million people are living with chronic HBV. Every thirty seconds, HBV silently takes one life. A vaccine exists, and it works. But what about people already living with HBV? For them, there is no cure. The reason lies in a molecular structure called cccDNA, it can persist for years in the nucleus and is untouched by immune responses or existing therapies. This persistence is what makes HBV so difficult to cure. But we’ve engineered a system to change that. Hepzero is a dual-CRISPR design that targets cccDNA. Two engineered guide RNAs pair through a kissing loop to bring two dCas proteins to key regulatory regions. These RNA–RNA interactions greatly increase the chance of precise, simultaneous binding, enabling safer repression of viral activity. In this way, we block HBV gene expression and replication without cutting DNA, leaving the host genome unharmed, aiming for a one‑time intervention rather than life‑long therapy. [Wiki](https://2025.igem.wiki/smbu) | [Official Page](https://teams.igem.org/5861)https://static.igem.org/peertube/streaming-playlists/hls/e6d760b5-9801-4a6b-99b2-5203bfe42c1f/57609ee8-728a-46a9-8b5d-0846bb6ca845-master.m3u8https://video.igem.org/videos/embed/uviJhLX1K7ywUCVW65tLpz7960292025-10-15T17:42:44.881ZYES2025 PresentationsNOhttps://video.igem.org/w/92Cwv6yPW5N9wmmh46x1EWhttps://video.igem.org/lazy-static/thumbnails/c3140e54-b057-4bbf-86b9-18d558cef1b5.jpgGuelph: seQUESTer (2025) - Team Presentation [English]**Title:** seQUESTer **Description:** Join us, iGEM Guelph, on the quest to seQUESTer lead out of drinking water. Watch our video to learn more about our comprehensive initiative! [Wiki](https://2025.igem.wiki/guelph) | [Official Page](https://teams.igem.org/5611)https://static.igem.org/peertube/streaming-playlists/hls/41035ce8-f762-4156-a3cc-bd76cbaafbda/6d156c83-45a1-42f9-8886-5e7bc95154c8-master.m3u8https://video.igem.org/videos/embed/92Cwv6yPW5N9wmmh46x1EW8520322025-10-15T18:09:56.799ZYES2025 PresentationsNOhttps://video.igem.org/w/ooQDD1XmbyAugqvbjYHEx6https://video.igem.org/lazy-static/thumbnails/4c3ecd2b-b2bf-417c-8fe9-ec48de2d43e6.jpgMingdao: rePLAce with PLAstic (2025) - Team Presentation [English]**Title:** rePLAce with PLAstic **Description:** Plastic pollution is, in fact, a pressing global issue, and addressing it requires both effective recycling and efficient degradation strategies. Integrating Human Practice played a vital part in our effort; we eventually targeted our goal through it. Specifically, we promoted sustainability by setting up a target field to prevent plastic contamination, organizing educational events, and submitting a citizen proposal to improve waste management policies. Later, we identified two main challenges in our iGEM project: current PLA-degrading enzymes exhibit limited activity, and public understanding of plastic classification and disposal is often unclear. To tackle these issues, we adopted a dual approach combining laboratory engineering and community engagement. In lab, we constructed recombinant genes for Proteinase K (PK), Bacillus licheniformis Alcalase (AC), Candida antarctica Lipase B (CA), and Amycolatopsis sp. PLA Depolymerase (DP). Then, we evaluated their enzymatic activity using pNPB assays. While some enzymes performed slightly better than the GFP control, their activity was generally modest and substrate-specific. Measurement, aimed to enhance the performance of enzymes, we introduced random mutations to generate variants with potentially higher PLA-degrading capability. Auto-induction was employed to rapidly express and screen multiple variants, enabling efficient testing. Among these, PK variants demonstrated the most significant PLA degradation, becoming the most promising strains in our study. In SDGs, we aligned our efforts with SDG 4 (Quality Education) and SDG 17 (Partnerships for the Goals) by promoting public education on plastics and submitting a citizen proposal advocating for the establishment of industrial composting systems and clearer waste management policies in Taiwan. In addition, we created a controlled target field where PLA could be used in isolation, preventing contamination with othe...https://static.igem.org/peertube/streaming-playlists/hls/b55964f9-6ea6-448a-bd05-f4129a96b88b/76854894-95e2-46a5-ac31-cae00925878e-master.m3u8https://video.igem.org/videos/embed/ooQDD1XmbyAugqvbjYHEx67610182025-10-15T17:42:03.483ZYES2025 PresentationsNOhttps://video.igem.org/w/vY8PE1ZFKmL6YT882TW14hhttps://video.igem.org/lazy-static/thumbnails/7112bfad-ffdb-436b-b361-808dbf5a2c51.jpgFHS-NB-ZJ-China: GumEraser+：Combat Peach Gummosis Initiative (2025) - Team Presentation [English]**Title:** GumEraser+：Combat Peach Gummosis Initiative **Description:** Peach gummosis seriously harms peach tree health, mainly triggered by fungal infections and environmental stress. It causes bark cracking and gummy exudation, weakening trees severely or even killing them. Current controls depend on chemicals and agricultural management, but problems like drug resistance and pollution remain, leaving a gap for efficient, eco-friendly solutions. ‘GumEraser+’ proposes to manipulate three key factors required for disease occurrence: 1) Apply specific RNA-based biopesticides to inhibit the activity of pathogens; 2) Promote the cultivation of disease-resistant host varieties; 3) Promote pruning of peach trees to improve orchard air circulation. The ‘+’ symbol here stands for three aspirations in addressing it: 1) Boost farmers’ income; 2) Enhance personal growth; 3) Promote knowledge transfer. [Wiki](https://2025.igem.wiki/fhs-nb-zj-china) | [Official Page](https://teams.igem.org/5595)https://static.igem.org/peertube/streaming-playlists/hls/f2af7e15-cf53-48af-8acb-93273815613e/cba1a65d-4464-4f34-b730-d9ef548f86a8-master.m3u8https://video.igem.org/videos/embed/vY8PE1ZFKmL6YT882TW14h8880212025-10-15T17:40:43.560ZYES2025 PresentationsNOhttps://video.igem.org/w/nDtrPaoNwESb7H2vhRf4m4https://video.igem.org/lazy-static/thumbnails/d9cc4f91-77a5-41e9-a92e-b4ff9694900e.jpgTAU-Israel: Oncoligo - Checkmating Cancer! (2025) - Team Presentation [English]**Title:** Oncoligo - Checkmating Cancer! **Description:** Meet Oncoligo: Modular Antisense Oligonucleotide Lung Cancer Treatment Lung cancer is the leading cause of cancer-related deaths worldwide, and many patients still lack effective long-term treatment options. Oncoligo introduces a modular therapeutic platform that harnesses antisense oligonucleotides (ASOs) to selectively silence essential cancer genes within a synthetic-lethality framework, enabling the targeting of tumor-suppressor-driven and intracellular cancers. Our computational pipeline integrates molecular dynamics, machine learning, and algorithmic optimization to design all parts of the platform. We specifically design potent ASOs, which are conjugated to antibodies for targeted delivery. Within each antibody, tumor-associated epitopes stimulate immune activation and memory. Experimentally, our designed ASOs outperform commercial ones, showing superior knockdown at the mRNA, protein, and cellular levels. In parallel, we optimized antibody expression systems and developed a dedicated software tool that facilitates ASO design across diverse genes and organisms. By uniting synthetic biology, computation, and entrepreneurship, Oncoligo pioneers a versatile, scalable framework for precision oncology - redefining how we treat cancer. Explore our Wiki: https://2025.igem.wiki/tau-israel Download our software Python package: https://gitlab.igem.org/2025/software-tools/tau-israel Explore the software demo website: https://igem-tau-2025-software.onrender.com/ [Wiki](https://2025.igem.wiki/tau-israel) | [Official Page](https://teams.igem.org/5661)https://static.igem.org/peertube/streaming-playlists/hls/af4b584f-a55a-4287-9150-210751d0d0f7/55055e85-9b08-4dab-8a9c-052849302f4a-master.m3u8https://video.igem.org/videos/embed/nDtrPaoNwESb7H2vhRf4m489357402025-10-15T17:44:12.616ZYES2025 PresentationsNOhttps://video.igem.org/w/bPYMFGMRKgcGg3jzm5BBBfhttps://video.igem.org/lazy-static/thumbnails/7a470115-0d29-4d20-9e9c-5fda36439041.jpgVIT-Vellore: Team Baleina - Microbial Biosynthesis of Triterpenoid Ambrein Using... (2025) - Team...**Title:** Team Baleina - Microbial Biosynthesis of Triterpenoid Ambrein Using Engineered Escherichia coli **Description:** Ambergris, a rare fragrance fixative produced in the digestive tract of sperm whales (Physeter macrocephalus), is highly valued in perfumery but raises ethical and environmental concerns due to its scarcity and link to illegal trade. To address this, Team VIT-Vellore aims to biosynthesize ambrein, the key triterpenoid component of ambergris, using engineered Escherichia coli. By integrating squalene synthase, squalene-hopene cyclase, and tetraprenyl β-curcumene cyclase into the MEP pathway, our system converts farnesyl pyrophosphate (FPP) into ambrein through a renewable, controlled process. This bio-based approach provides an ethical, consistent, and eco-friendly alternative to whale-derived ambergris. Aligned with UN SDGs 12, 14, 4, and 17, our project fosters responsible innovation, marine conservation, education, and inclusivity. Through open-access learning and interdisciplinary collaboration, VIT-Vellore envisions a future where biotechnology unites sustainability, ethics, and creativity to transform the fragrance industry. [Wiki](https://2025.igem.wiki/vit-vellore) | [Official Page](https://teams.igem.org/5864)https://static.igem.org/peertube/streaming-playlists/hls/57ae5726-85f6-4900-8803-8f73111d2760/723b1fc9-a500-4231-97d0-8ca215814d11-master.m3u8https://video.igem.org/videos/embed/bPYMFGMRKgcGg3jzm5BBBf9005422025-10-15T17:48:59.747ZYES2025 PresentationsNOhttps://video.igem.org/w/nNmYQLHwH2BQ8BQeCjBRbphttps://video.igem.org/lazy-static/thumbnails/cd04a3b1-13d0-4582-9aab-8bf9fedb6562.jpgIISc-Bengaluru: ARGUS-2440: Ammonium Rhizospheric Generation Using Soil Bacteria (2025) - Team Pr...**Title:** ARGUS-2440: Ammonium Rhizospheric Generation Using Soil Bacteria **Description:** Excess nitrate ions in soil leach away due to irrigation, rainfall and weathering. They enter water bodies and prove detrimental to organisms relying on these freshwater sources. We propose to engineer a bacterium that can convert excess nitrate in the rhizosphere to ammonium, a molecule that is retained better in soil and taken up more efficiently by plants. These bacteria will be applied as a biofilm around plant roots, conferring additional resistance to drought, infection, and adverse environmental conditions. This model not only reduces the downstream effects of nitrate leaching, but also benefits crops by maintaining soil nitrogen content and retaining nutrients in an energetically favorable state for plant consumption. Our project thus provides a comprehensive agriculturally-motivated bioremediation solution against nitrate pollution. [Wiki](https://2025.igem.wiki/iisc-bengaluru) | [Official Page](https://teams.igem.org/6006)https://static.igem.org/peertube/streaming-playlists/hls/b0890dff-14f9-4e31-8ece-38fb52469997/b71b9321-a8f8-4444-bbc0-09cb07d235c6-master.m3u8https://video.igem.org/videos/embed/nNmYQLHwH2BQ8BQeCjBRbp7430522025-10-15T17:46:18.626ZYES2025 PresentationsNOhttps://video.igem.org/w/p8S5W7A91mDh8fRVr24zDdhttps://video.igem.org/lazy-static/thumbnails/f79747e1-3985-4e9f-9274-fd1eef9ec562.jpgHPI-Potsdam: BioComplete: AI-Powered DNA Design Assistant (2025) - Team Presentation [English]**Title:** BioComplete: AI-Powered DNA Design Assistant **Description:** AI models are transforming biology by capturing complex patterns in DNA sequences. However, realizing their full potential requires both high-quality training data and user-friendly tools for scientists. The iGEM Registry contains the largest collection of synthetic biology parts, but inconsistent annotations and limited search functionality make it difficult to use directly for AI training or for everyday part discovery. Our project addresses these challenges by adapting a DNA foundation model, Evo2, to genetic circuit design. We develop representations that capture functional similarity between parts, enabling reliable retrieval and AI-guided part suggestions. To support this process, we developed a sequence-centric data model that provides easily accessible, findable metadata, including safety status. Our sequence editor and search engine makes the model's capabilities available to users at https://biocomplete.it/. Together, these components form a cycle: cleaner data improves the model, the model creates meaningful embeddings, and these embeddings power new tools for synthetic biology. [Wiki](https://2025.igem.wiki/hpi-potsdam) | [Official Page](https://teams.igem.org/6011)https://static.igem.org/peertube/streaming-playlists/hls/bb5b42f6-dfa1-452e-a126-ffc42c678bfa/8d9438dc-096d-4a81-9130-fd9556543284-master.m3u8https://video.igem.org/videos/embed/p8S5W7A91mDh8fRVr24zDd79651202025-10-15T17:43:30.529ZYES2025 PresentationsNOhttps://video.igem.org/w/uYKsB75QqEcHPJoHgWLCewhttps://video.igem.org/lazy-static/thumbnails/1b9b7fda-dc04-4eb2-be9b-c288fd35869f.jpgKCIS-Xiugang-Taipei: KCIS Xiugang (2025) - Team Presentation [English]**Title:** KCIS Xiugang **Description:** Presentation video for the xiugang igem team [Wiki](https://2025.igem.wiki/kcis-xiugang-taipei) | [Official Page](https://teams.igem.org/5624)https://static.igem.org/peertube/streaming-playlists/hls/eaac50e4-3489-45d1-bddf-69cbfe3e7400/a4db1f5d-a533-4ad8-b571-a1cec6e8df70-master.m3u8https://video.igem.org/videos/embed/uYKsB75QqEcHPJoHgWLCew89501012025-10-15T17:46:50.968ZYES2025 PresentationsNOhttps://video.igem.org/w/7jWs4yG2Ua2hCDHQahkMdVhttps://video.igem.org/lazy-static/thumbnails/f1adbead-2fa8-4e66-8f05-9e3782eb34b3.jpgBUCT-China: CinderLight (2025) - Team Presentation [English]**Title:** CinderLight **Description:** According to global statistics, approximately 242 million tons of plastic waste are generated annually, accounting for 12% of total municipal solid waste. Meanwhile, starch constitutes about 49.6% of food residues, and improper disposal leads to severe resource waste and environmental pollution. To address these challenges, our BUCT-China presents CinderLight, a synthetic biology-based solution that upcycles both types of waste into a value-added luminescent material. The project involves two key enzymatic conversions: PETase degrades polyethylene terephthalate (PET) into terephthalic acid (TPA), while cGTase converts starch-rich food waste into β-cyclodextrin (β-CD). These two components subsequently self-assemble into the supramolecular compound TPA-CD, which exhibits persistent luminescence and room-temperature phosphorescence. Due to these unique optical properties, PPA-CD shows promising potential in anti-counterfeiting, fluorescent labeling, and other advanced material applications. By integrating enzymatic degradation, molecular assembly, and sustainable material design, CinderLight provides a dual-purpose solution for waste valorization and functional material production, showcasing the transformative power of synthetic biology in addressing global environmental and material challenges. [Wiki](https://2025.igem.wiki/buct-china) | [Official Page](https://teams.igem.org/5851)https://static.igem.org/peertube/streaming-playlists/hls/333bc681-9901-4cea-b0dc-f38b3c153659/0792fa4f-40de-4f02-80db-213c831680f6-master.m3u8https://video.igem.org/videos/embed/7jWs4yG2Ua2hCDHQahkMdV5790182025-10-15T17:45:13.061ZYES2025 PresentationsNOhttps://video.igem.org/w/nzF1KWafuuCRYu5GUioFkphttps://video.igem.org/lazy-static/thumbnails/980cc9e7-6ef3-4ef5-99d2-f1858d95066b.jpgEcuador: AvianGuard: A Modular Synthetic Biology Platform for Active and Passive... (2025) - Team...**Title:** AvianGuard: A Modular Synthetic Biology Platform for Active and Passive Immunization **Description:** AvianGuard is a dual-immunization probiotic platform developed by Team Ecuador iGEM 2025. Designed under the Design–Build–Test–Learn (DBTL) framework, AvianGuard combines active and passive immunization modules in GRAS probiotic bacteria — Lactococcus lactis and E. coli Nissle 1917. The project integrates computational modeling, wet-lab validation, and responsible innovation to develop a safe, modular, and sustainable biotechnology solution against avian influenza (H5N1). AvianGuard demonstrates how synthetic biology can bridge data-driven design with ethical and accessible innovation, protecting animal health and supporting rural communities across Latin America. [Wiki](https://2025.igem.wiki/ecuador) | [Official Page](https://teams.igem.org/5783)https://static.igem.org/peertube/streaming-playlists/hls/aec37fb9-5e14-4e8c-aaf1-0e9e4ed01ae1/2864deea-f544-47fa-9e98-7baf607002f5-master.m3u8https://video.igem.org/videos/embed/nzF1KWafuuCRYu5GUioFkp9010432025-10-15T18:02:12.198ZYES2025 PresentationsNOhttps://video.igem.org/w/mhYhH6NAw1SiRRxAisC81Lhttps://video.igem.org/lazy-static/thumbnails/2345183f-dfe8-441e-8b2f-637fd143440d.jpgBologna: HERO – the High-performance Engineered Rhodococcus Opacus (2025) - Team Presentation [En...**Title:** HERO – the High-performance Engineered Rhodococcus Opacus **Description:** Our project introduces HERO – the High-performance Engineered Rhodococcus Opacus: an upgraded bacterial chassis designed for sustainable bioremediation. We built a Cre/LoxP-based system for precise and safe gene integration, expanded the set of molecular tools with a characterized promoter library, and developed both a colorimetric biosensor for rapid TAG detection and a computational tool to predict the best degradation pathways. With HERO, we aim to make Rhodococcus opacus a customizable, easy-to-use platform for tackling different pollutants — bridging the gap between research and real-world environmental solutions. [Wiki](https://2025.igem.wiki/bologna) | [Official Page](https://teams.igem.org/5716)https://static.igem.org/peertube/streaming-playlists/hls/a4555cbe-7953-4cca-a59b-a5c667788608/af498452-6715-4fe9-a913-32457f5db6d6-master.m3u8https://video.igem.org/videos/embed/mhYhH6NAw1SiRRxAisC81L7290382025-10-15T18:06:57.762ZYES2025 PresentationsNOhttps://video.igem.org/w/8KfaeBDFJ5m9rnuMi42gyuhttps://video.igem.org/lazy-static/thumbnails/caed9b9e-9bc8-45c1-9f70-09b0d2994fd1.jpgPeking: HpBusters: Engineered Probiotic Yeast Equipped with the Target–Adhere–Er... (2025) - Team...**Title:** HpBusters: Engineered Probiotic Yeast Equipped with the Target–Adhere–Eradicate System **Description:** Halitosis, nausea, and bloating—these are discomforts that people with Helicobacter pylori (Hp) infection suffer from every day. As the culprit of chronic gastric diseases, Hp has infected over half of the global population. In 2025, integrating probiotic engineering with micromotor delivery, the Peking team constructed HpBusters. The sensing-and-therapy system and the adhesion system were designed and implemented in genetically modified Saccharomyces boulardii to sense the biomarker Nα-methylhistamine, and while adhered to Hp, to secrete the biofilm-degrading enzyme AiiA. Micromotors, based on calcium carbonate, propel the encapsulating pH-responsive microgels through the gastric mucus barrier, releasing probiotics directly at infection sites. Models were established to comprehensively evaluate and simulate the efficiency of HpBusters across all processes. Human practices were conducted to forge connections between our project and society. We hope this antibiotic-free strategy enables targeted reaction, biofilm eradication and long-term protection, offering Hp-infected patients a comfortable yet effective therapeutic alternative. [Wiki](https://2025.igem.wiki/peking) | [Official Page](https://teams.igem.org/5870)https://static.igem.org/peertube/streaming-playlists/hls/3eb9adbc-98ee-43f0-90d9-e56bd7f4dbb0/70f98606-f3b4-4c9a-8a7e-cb2ab5f6cf76-master.m3u8https://video.igem.org/videos/embed/8KfaeBDFJ5m9rnuMi42gyu75301382025-10-15T17:56:27.006ZYES2025 PresentationsNOhttps://video.igem.org/w/4c1cdRqTwghgnsTw9gHz6khttps://video.igem.org/lazy-static/thumbnails/a43755fe-0f19-4a7d-9919-e7b0a455fda7.jpgHKU-HongKong: NPM Zero (2025) - Team Presentation [English]**Title:** NPM Zero **Description:** Air pollution from fossil fuels exacerbates respiratory diseases and climate change, demanding urgent transition to sustainable alternatives. The HKU iGEM team addresses this with NPM Zero: a synthetic biology platform using engineered E. coli to produce clean hydrogen fuel directly from sunlight. Crucially, hydrogen outperforms traditional renewables as an energy carrier—boosting higher energy density, point-to-point distribution flexibility, baseload reliability, and storage simplicity. Our "Z-E-R-O" system maximizes efficiency by redesigning bacterial electron transport chains and formate metabolism, enabling scalable, toxin-free hydrogen generation. By cutting emissions, lowering costs, and leveraging modular biotech, this innovation accelerates industrial decarbonization while attracting green investment. Together, we’re powering a future where clean energy safeguards both human health and planetary resilience. [Wiki](https://2025.igem.wiki/hku-hongkong) | [Official Page](https://teams.igem.org/5885)https://static.igem.org/peertube/streaming-playlists/hls/19d4b778-9382-4a7a-bfa6-09d786c3ef31/b39559a1-8ac5-4e1c-84bf-5237fd66b308-master.m3u8https://video.igem.org/videos/embed/4c1cdRqTwghgnsTw9gHz6k9030372025-10-15T17:53:40.785ZYES2025 PresentationsNOhttps://video.igem.org/w/x2PB26QhAbow8mioPnGPFehttps://video.igem.org/lazy-static/thumbnails/b23c035e-161c-4f68-b3af-0310b6a87953.jpgBIT: KIT:CRC-Killer In and ouT (2025) - Team Presentation [English]**Title:** KIT:CRC-Killer In and ouT **Description:** Colorectal cancer (CRC) is the third most common cancer and the second leading cause of cancer death globally. Despite advances in chemotherapy, targeted therapy, and immunotherapy, treatment remains limited by drug resistance and toxicity. Our team presents the “CRC-killer in and out” integrated delivery kit, combining endogenous oral capsules with engineered bacteria and exogenous intelligent microneedle patches for comprehensive CRC therapy. The “in” module combined with complete modelingenhances intestinal targeting and bioavailability via peptide-mediated accumulation, while the “out” module employs minimally invasive microneedles with iontophoresis-enhanced transdermal delivery and responsive drug release. Together, they enable individualized administration, improved compliance, and non-professional usability. [Wiki](https://2025.igem.wiki/bit) | [Official Page](https://teams.igem.org/5623)https://static.igem.org/peertube/streaming-playlists/hls/fb4c610c-9bb0-48a7-b526-16344b2ca16f/7cf12619-b266-4d72-8731-12d50d5ced1c-master.m3u8https://video.igem.org/videos/embed/x2PB26QhAbow8mioPnGPFe8130232025-10-15T17:50:21.139ZYES2025 PresentationsNOhttps://video.igem.org/w/uKjhR7pKTsMAGVWfihcTKwhttps://video.igem.org/lazy-static/thumbnails/5392d512-3c6f-4632-a3f3-40d55092100a.jpgNAWI Graz Austria: Knotaut – Combating the spread of Japanese knotweed by hijack... (2025) - Team...**Title:** Knotaut – Combating the spread of Japanese knotweed by hijacking its RNAi-pathway **Description:** Reynoutria japonica, commonly known as Japanese knotweed, is a fast growing and propagating neophyte present in most of Europe, North America and New Zealand that poses a severe risk to local ecosystems. While this invasive plant is generally susceptible to chemical-herbicidal-agents and physical control methods, both come with 3 key drawbacks. They are either unable to guarantee long-term removal, damage surrounding ecosystems or are highly cost, time and/or labor intensive. Using a modified Escherichia coli strain and a specifically designed dsRNA expression system our goal was to produce and apply dsRNA to post-transcriptionally silence essential genes of R. japonica, ultimately leading to plant death. Additionally, by encapsulating dsRNA into liposomes we aimed to enhance its environmental stability as well as its uptake into and distribution in the plant. Our work had one clear objective: Create an environmentally friendly, species-specific herbicide formulation with dsRNA as its active ingredient - Knotaut! [Wiki](https://2025.igem.wiki/nawi-graz-austria) | [Official Page](https://teams.igem.org/5880)https://static.igem.org/peertube/streaming-playlists/hls/e8cc22f0-cb46-4a84-90b2-74ae7327cbe0/c329fd40-a2f0-4dff-9243-f70d8cd8ed02-master.m3u8https://video.igem.org/videos/embed/uKjhR7pKTsMAGVWfihcTKw8990552025-10-15T17:59:58.764ZYES2025 PresentationsNOhttps://video.igem.org/w/dRmXBA8pZMehQdoLe6WdqQhttps://video.igem.org/lazy-static/thumbnails/043b2049-8bbd-4ffb-a5a2-2fe9b1867737.jpgTongji-China: “DElMOS": Degradable Exoskeletons of crayfish for in-situ utilizat... (2025) - Team...**Title:** “DElMOS": Degradable Exoskeletons of crayfish for in-situ utilization & Mars Operations System **Description:** As space pioneers take one step after another toward fulfilling our dream of exploring the cosmos, do we truly understand the conditions they face? Bland and monotonous food choices, unmet social and psychological needs... Perhaps, we can bring a taste of home to fill this void!​Through an integrated “aquatic plant-crayfish” co-cultivation system, we aim to establish crayfish farming on Mars. Utilizing synthetic biology, we’ve also designed a system for recycling crayfish shells. First, by using Aspergillus niger and engineered E. coli capable of secreting protease, we can achieve demineralization and deproteinization of the shells. After purifying chitin, it can be used for in-situ material production. Finally, biological resources can be degraded into monosaccharides by chitinase-producing bacteria, feeding back into the food production system. Our ultimate goal is to serve steaming plates of spicy crayfish to astronauts, letting them savor a true taste of home in space. [Wiki](https://2025.igem.wiki/tongji-china) | [Official Page](https://teams.igem.org/5699)https://static.igem.org/peertube/streaming-playlists/hls/68120666-9c5e-4f69-90fa-3606ba352030/59cac553-79d8-41c6-8584-a814e24417ec-master.m3u8https://video.igem.org/videos/embed/dRmXBA8pZMehQdoLe6WdqQ8880152025-10-15T18:01:56.970ZYES2025 PresentationsNOhttps://video.igem.org/w/68eX4rK5bUEx7tKzAyyL7Lhttps://video.igem.org/lazy-static/thumbnails/36d74b7b-c84f-436f-8240-70ea17491fa7.jpgBarcelona-UIC: ALSense - step forward for ALS (2025) - Team Presentation [English]**Title:** ALSense - step forward for ALS **Description:** In this video we describe how we created our biosensor as a new tool for ALS diagnosis. Besides, we explain you how the human practices and entrepreneurship had helped us during the cycle. [Wiki](https://2025.igem.wiki/barcelona-uic) | [Official Page](https://teams.igem.org/5754)https://static.igem.org/peertube/streaming-playlists/hls/29807f0a-529c-45f1-ba58-3b2022897eb8/f95bc201-28e2-406a-9353-3ac852fbea19-master.m3u8https://video.igem.org/videos/embed/68eX4rK5bUEx7tKzAyyL7L6810322025-10-15T17:54:42.982ZYES2025 PresentationsNOhttps://video.igem.org/w/hRRpV9BsCQggvVawGyBsAehttps://video.igem.org/lazy-static/thumbnails/5fcabc7a-b459-41d2-b795-e935ee25473c.jpgAEI Prep-Taiwan: Dancing JJ (2025) - Team Presentation [English]**Title:** Dancing JJ **Description:** Bio‐based Carbon Capture Reactor [Wiki](https://2025.igem.wiki/aei-prep-taiwan) | [Official Page](https://teams.igem.org/5744)https://static.igem.org/peertube/streaming-playlists/hls/88881d5f-24cd-456e-a964-c382dc82a8e1/a20207b3-6630-4899-8494-ca6d6452bf31-master.m3u8https://video.igem.org/videos/embed/hRRpV9BsCQggvVawGyBsAe8710302025-10-15T18:05:28.355ZYES2025 PresentationsNOhttps://video.igem.org/w/ckttzftn27dyqjK9s1fspphttps://video.igem.org/lazy-static/thumbnails/54a37270-911a-4999-bffd-951db05f8ee3.jpgIISER-Berhampur: IISER - Berhampur, POSEIDON -Phyto Protein-Optimized System for... (2025) - Team...**Title:** IISER - Berhampur, POSEIDON -Phyto Protein-Optimized System for Environmental Ion DetoxificatiON [English] **Description:** Metal contamination is a growing global crisis, polluting rivers, lakes, and groundwater with toxic elements like Mercury, Chromium, Aluminium and Iron. Released through industry, mining, and agriculture, these metals accumulate in ecosystems, harm biodiversity, and cause severe human health problems. Conventional treatment methods are costly, energy-intensive, and often create new pollutants. Project POSEIDON from Team iGEM - IISER Berhampur offers an alternative approach, by harnessing nature's metal binding machinery against toxic metals to create a biodegradable, biopolymer-based filtration system that efficiently removes toxic metals from water. This nature-inspired approach aligns with green chemistry and sustainability, repurposing biological principles into an eco-friendly and scalable filtration mechanism. It sets a foundation for further innovations for water purification, aimed at protecting residents in industrial and contaminated regions. Project POSEIDON addresses one of today's most urgent environmental challenges, ensuring clean, safe water for the future. -- Credit, Copyright & Creation Information: Pixabay (free to use footage) Google Earth Google images Capcut (free to use music) [Wiki](https://2025.igem.wiki/iiser-berhampur) | [Official Page](https://teams.igem.org/5957)https://static.igem.org/peertube/streaming-playlists/hls/5bcc96d6-4cd8-402e-84cb-04c085fc32e5/7001954a-7239-44d6-b0ec-07ad1a63541b-master.m3u8https://video.igem.org/videos/embed/ckttzftn27dyqjK9s1fspp9000292025-10-15T18:02:42.916ZYES2025 PresentationsNOhttps://video.igem.org/w/pna3cpd4Q3LEKbppMvM2h6https://video.igem.org/lazy-static/thumbnails/6f53994a-a41f-4c0d-bb90-ae73c4ffe5bb.jpgDuke: RESPIRA: Responsive Engineered Strain for Polymicrobial Infection Recovery... (2025) - Team...**Title:** RESPIRA: Responsive Engineered Strain for Polymicrobial Infection Recovery in Airways **Description:** Duke iGEM presents RESPIRA, a new paradigm for treating a deadly infection known as ventilator associated pneumonia (VAP). Our project presentation video describes how Duke iGEM uses responsible research, laboratory experiments, mathematical models, and software development to address this pressing problem. [Wiki](https://2025.igem.wiki/duke) | [Official Page](https://teams.igem.org/5719)https://static.igem.org/peertube/streaming-playlists/hls/bd3660cd-85ea-41d6-b1e7-491c1e1cb301/04be7f0c-c7ec-4e52-82ee-b5e13b66d8cf-master.m3u8https://video.igem.org/videos/embed/pna3cpd4Q3LEKbppMvM2h68920382025-10-15T18:07:23.015ZYES2025 PresentationsNOhttps://video.igem.org/w/aFNe3RXC8dDoprEwsQE9GWhttps://video.igem.org/lazy-static/thumbnails/ea894ca1-fcfc-4d32-8449-6876dddd5b35.jpgNCHU: ECO-Casein (2025) - Team Presentation [English]**Title:** ECO-Casein **Description:** Our project, EcoCasein, aims to create a sustainable, low-carbon alternative to dairy production by engineering Kluyveromyces marxianus through the PGASO system to co-express RuBisCO and A2 β-casein. This design links carbon fixation with the synthesis of digestible milk proteins. In our wet lab, we verified gene integration by PCR, monitored growth and CO₂ trends through OD₆₀₀ and gas chromatography, and established a foundation for optimizing protein expression and carbon-flux analysis. Beyond the bench, our Human Practice team conducted high-school outreach and expert interviews on carbon assessment to ensure that our research connects to real social needs and scientific accuracy. Through these efforts, EcoCasein demonstrates how synthetic biology can bridge nutrition and sustainability toward a truly low-carbon future. [Wiki](https://2025.igem.wiki/nchu) | [Official Page](https://teams.igem.org/5901)https://static.igem.org/peertube/streaming-playlists/hls/4e70bdfc-5009-4a73-8e85-efbfb3207316/8ef4101f-605a-466c-aac0-2ae97758dfc3-master.m3u8https://video.igem.org/videos/embed/aFNe3RXC8dDoprEwsQE9GW8470122025-10-15T17:56:44.256ZYES2025 PresentationsNOhttps://video.igem.org/w/vtf8BkGHHnY6y5h9juiFZihttps://video.igem.org/lazy-static/thumbnails/e3d159d9-c36f-4ceb-a1d1-a3e09ba8a873.jpgNPU-CHINA: Wood-fed yeast, youth increased — no more aging tease! Xylose operon-... (2025) - Team...**Title:** Wood-fed yeast, youth increased — no more aging tease! Xylose operon-regulated two-stage enzymatic biosynthesis of Pro-Xylane **Description:** Pro-Xylane is highly valued in cosmetic and dermocosmetic applications owing to its notable biological activities, including anti-inflammatory and anti-aging effects. Conventional production, however, relies on environmentally unfriendly chemical synthesis or limited natural extraction with low yield and high cost. To address these challenges, we developed a biosynthetic system in engineered Komagataella pastoris. By co-expressing high-performance xylanase and Pro-Xylane synthase, our chassis enables direct, value-added conversion of xylan into Pro-Xylane. The system features a smart xylose-inducible module that dynamically regulates a modular enzymatic cascade through tailored metabolic pathways. Integrating synthetic genetic circuits with native pentose metabolism and applying modular control strategies, we established an efficient, sustainable, and tunable production system. This approach highlights the power of synthetic biology–driven cell machines for high-value biotransformations and provides a proof-of-concept platform for the programmable biosynthesis of Pro-Xylane. [Wiki](https://2025.igem.wiki/npu-china) | [Official Page](https://teams.igem.org/5710)https://static.igem.org/peertube/streaming-playlists/hls/eea6cfc4-3ab7-40d1-82ca-31b4f2f21f1f/087c6c2e-037a-494d-9aa4-71dcaa911be2-master.m3u8https://video.igem.org/videos/embed/vtf8BkGHHnY6y5h9juiFZi7620262025-10-15T17:54:13.407ZYES2025 PresentationsNOhttps://video.igem.org/w/uCWqCQAz2yHacvYYXuyGs3https://video.igem.org/lazy-static/thumbnails/9791958c-dd6b-41db-9c9a-0f18c669b977.jpgZJUT-China: PlasticSense Neo--Microplastic Detection-Degradation System (2025) - Team Presentatio...**Title:** PlasticSense Neo--Microplastic Detection-Degradation System **Description:** Microplastic pollution has emerged as a significant global environmental issue. Preliminary research conducted by the HP group indicates that the public is increasingly concerned about its widespread distribution, hidden forms, and potential for ingestion. In response to elevated concentrations of microplastics, such as polyethylene terephthalate (PET), in the environment, this study utilizes synthetic biology techniques to develop various biological modules for detection and degradation. To ensure biosafety, we designed a logic gate lysis module that facilitates the self-lysis of microorganisms. This research aims to provide systematic solutions for the precise detection and sustainable management of microplastics, thereby contributing to bioremediation strategies. [Wiki](https://2025.igem.wiki/zjut-china) | [Official Page](https://teams.igem.org/5945)https://static.igem.org/peertube/streaming-playlists/hls/e7e832da-0d80-449c-aceb-1270b1dcfca6/b4c0670a-3141-49ef-974d-c9d8c02472db-master.m3u8https://video.igem.org/videos/embed/uCWqCQAz2yHacvYYXuyGs38680142025-10-15T17:55:04.369ZYES2025 PresentationsNOhttps://video.igem.org/w/5tedeVrvx9c98Gqdp1ajwchttps://video.igem.org/lazy-static/thumbnails/bd2dfa94-18a3-4b2f-b120-3acc548c102c.jpgAnatolia College-GR: MAVericks Team (2025) - Team Presentation [English]**Title:** MAVericks Team **Description:** This is the video presenting our solution [Wiki](https://2025.igem.wiki/anatolia-college-gr) | [Official Page](https://teams.igem.org/5868)https://static.igem.org/peertube/streaming-playlists/hls/2431c72c-48de-43ff-abfd-82ed50254d27/80faf22c-9481-4e6b-846a-13be9d46c76a-master.m3u8https://video.igem.org/videos/embed/5tedeVrvx9c98Gqdp1ajwc6410222025-10-15T17:51:28.137ZYES2025 PresentationsNOhttps://video.igem.org/w/89VCXSVk6RnLeoWULXjpyBhttps://video.igem.org/lazy-static/thumbnails/3877f224-017f-42fe-bf9a-fb5811d77c64.jpgUni-Padua-IT: ProgERASE RING-bait System Against Progerin Accumulation in HGPS (2025) - Team Pres...**Title:** ProgERASE RING-bait System Against Progerin Accumulation in HGPS **Description:** Hutchinson-Gilford Progeria Syndrome, also known as Progeria, is a rare genetic disease affecting only 400 people worldwide. It is caused by progerin, an aberrant version on lamin A, that accumulates in the cells nucleus. ProgERASE is structured into three modules: a bioinformatics pipeline to design a selective interactor that recognizes progerin; a yeast platform to test the interactor and model key aspects of the disease; and mammalian-cell validation to verify that the targeted degradation system functions as intended. [Wiki](https://2025.igem.wiki/uni-padua-it) | [Official Page](https://teams.igem.org/5700)https://static.igem.org/peertube/streaming-playlists/hls/39eef9d7-3f1f-4689-aba1-38a8feb8de5f/7c89a36b-6f4b-460a-b484-df9f0bc35974-master.m3u8https://video.igem.org/videos/embed/89VCXSVk6RnLeoWULXjpyB9000642025-10-15T17:59:31.161ZYES2025 PresentationsNOhttps://video.igem.org/w/sG7XL6kc8bQnoEwocZQrMuhttps://video.igem.org/lazy-static/thumbnails/3f0c31f4-2720-478e-aef5-3110c9584b16.jpgNYU-Abu-Dhabi: Revitalyze: Restoring Glycosylation, One Vesicle at a Time (2025) - Team Presentat...**Title:** Revitalyze: Restoring Glycosylation, One Vesicle at a Time **Description:** Congenital disorders of glycosylation (CDGs) are a group of rare metabolic diseases caused by defects in various stages of the glycosylation pathway. Errors in glycosylation can confuse cellular interactions, causing serious malfunctions in multiple organs and organ systems. The most common type of CDG is PMM2-CDG (or CDG-Ia), where the mutation in the PMM2 enzyme, which converts mannose-6-phosphate to mannose-1-phosphate, leads to decreased glycosylation rate. As a comprehensive solution to this problem, Revitalyze proposes engineering probiotics that deliver the functional PMM2 protein to the patient’s body cells via bacterial extracellular vesicles (bEVs), thereby allowing an enzyme replacement therapy that minimizes disruption in the patients' daily lives. Starting with PMM2-CDG, our delivery system can be expanded to any other type of CDG caused by mutations in enzymes, and potentially other disorders as well. Revitalyze is more than a treatment; it's a step toward hope for all rare disorders. [Wiki](https://2025.igem.wiki/nyu-abu-dhabi) | [Official Page](https://teams.igem.org/5671)https://static.igem.org/peertube/streaming-playlists/hls/d827a564-78b9-427e-9dee-36b0950eeb42/32f5f87e-5e80-4658-b07a-1a631e781cd7-master.m3u8https://video.igem.org/videos/embed/sG7XL6kc8bQnoEwocZQrMu8900562025-10-15T18:06:31.635ZYES2025 PresentationsNOhttps://video.igem.org/w/aTtcD6pBQUHLN3vUG34FR6https://video.igem.org/lazy-static/thumbnails/cf9f7efa-e5a4-4ec4-a93d-1551b9ad08a2.jpgECUST-China: "Wukong’s Journey: Harnessing Light and Wisdom for Sustainable Aqua... (2025) - Team...**Title:** "Wukong’s Journey: Harnessing Light and Wisdom for Sustainable Aquaculture **Description:** The "Sun Wukong" project, led by the School of Bioengineering at East China University of Science and Technology and jointly conducted by student teams from multiple departments within the university, aims to significantly reduce antibiotic dependence in aquaculture through innovative vaccine technologies and intelligent vaccination systems, driving the industry's transition toward sustainable development. Inspired by the character of Sun Wukong from China's classical novel “Journey to the West”, the project transforms his "72 transformations" of adaptability and breakthrough spirit into technical design concepts, demonstrating the deep integration of traditional wisdom and modern technology. Technically, our team successfully developed a novel vaccine delivery system responsive to specific light signals using gene editing technology. This system utilizes a biomimetic vaccine robot to achieve targeted penetration of fish immune barriers and precise activation of immune responses, thereby significantly enhancing disease resistance in fish. Meanwhile, the automated immersion inoculation equipment adopts high-efficiency, non-destructive designs to ensure high precision and scalability during inoculation, making it suitable for large-scale farming scenarios. Currently, the project has completed application verification at multiple national aquaculture demonstration bases. Practice has shown that this technological system effectively reduces antibiotic usage and decreases disease outbreak frequency, while simultaneously raising public awareness of aquatic disease prevention through cultural practices and science outreach activities. The project's achievements provide innovative solutions for marine ecological protection and global food security, showcasing the potential of interdisciplinary collaboration in addressing agricultural challenges. [Wiki](https://202...https://static.igem.org/peertube/streaming-playlists/hls/5011f177-3b76-4139-9eae-f698161510b3/e02d049e-2f2f-470e-b420-93ddc4210c65-master.m3u8https://video.igem.org/videos/embed/aTtcD6pBQUHLN3vUG34FR68100112025-10-15T17:59:03.917ZYES2025 PresentationsNOhttps://video.igem.org/w/gy3dLVUbycACSmAUyRkZ5Qhttps://video.igem.org/lazy-static/thumbnails/3840d002-efa1-433c-9ecd-82fdd925d70c.jpgIITChicago: SynBeeGee: Engineering the Bee Microbiome to Save Our Pollinators (2025) - Team Prese...**Title:** SynBeeGee: Engineering the Bee Microbiome to Save Our Pollinators **Description:** Bees are the tiny engines that keep our planet alive. Yet, their survival is now threatened by pesticides and environmental change. In this short documentary, SynBeeGee explores how modern synthetic biology can empower bees to protect themselves, from the inside out. By engineering Snodgrassella alvi, a natural gut bacterium of the honeybee, our team developed a microbiome-based shield against toxic organophosphate pesticides. This project unites molecular biology, ecological science, and innovation to restore balance to nature’s most essential pollinators. Follow our journey as we design, build, and test an engineered microbe that could redefine the future of pollinator protection, one bee at a time. [Wiki](https://2025.igem.wiki/iitchicago) | [Official Page](https://teams.igem.org/5862)https://static.igem.org/peertube/streaming-playlists/hls/7df23fb2-9aa5-4b04-8c34-640d1627b524/ce88ccfd-56f0-4f10-8ce4-28f5683eb534-master.m3u8https://video.igem.org/videos/embed/gy3dLVUbycACSmAUyRkZ5Q7500232025-10-15T17:55:27.220ZYES2025 PresentationsNOhttps://video.igem.org/w/twgSswot2jSXcjFNWZet5yhttps://video.igem.org/lazy-static/thumbnails/cc235286-9fdc-482f-a675-ccaf806293de.jpgSJTU-BioX-Shanghai: QURES: Quorum-sensing Utilizing Reprogrammed Engineered Symb... (2025) - Team...**Title:** QURES: Quorum-sensing Utilizing Reprogrammed Engineered Symbionts for Atopic Dermatitis **Description:** As the incidence of atopic dermatitis is increasing, the poor therapeutic experience of patients relying on long-term steroid use and immunosuppressants requires a breakthrough. Current treatments face a high recurrence rate. We stand to develop a more favorable treatment experience. Relevant studies have shown that the microbiome plays a critical role in the pathogenesis of atopic dermatitis, particularly the presence of Staphylococcus aureus and its inflammatory effects. Based on this, we designed a therapeutic system using engineered Staphylococcus epidermidis. We genetically modified Staphylococcus epidermidis to sense the AIP-C secreted by S. aureus and activate two downstream therapeutic pathways. The first pathway produces an nanobody that targets and neutralizes the inflammatory cytokine, while the second secretes AIP-C to suppress the virulence of S. aureus. Together, our system offers a safe and long-lasting therapeutic strategy, representing a paradigm shift in atopic dermatitis management - moving from symptom suppression to microbiome-mediated disease prevention. [Wiki](https://2025.igem.wiki/sjtu-biox-shanghai) | [Official Page](https://teams.igem.org/5615)https://static.igem.org/peertube/streaming-playlists/hls/dee0d64d-e589-48e7-a851-f8c56ffde52c/b8724f5a-7686-4558-b574-4016ec64a761-master.m3u8https://video.igem.org/videos/embed/twgSswot2jSXcjFNWZet5y7990322025-10-15T18:09:03.224ZYES2025 PresentationsNOhttps://video.igem.org/w/1XCZ7QL84W6rjcatETFwejhttps://video.igem.org/lazy-static/thumbnails/3cd8cabb-078b-463d-8d9c-2fa085152e3d.jpgNAU-CHINA: Temperature-controlled One-step Synthesis of Colored Bacterial Cellulose (2025) - Team...**Title:** Temperature-controlled One-step Synthesis of Colored Bacterial Cellulose **Description:** The textile industry, as an important sector of fashion industry, is the second largest pollution source in the world. Traditional textile manufacturing processes, which separate fiber production from dyeing, are highly water-intensive and incompatible with the principles of sustainable fashion. To address these challenges, our project developed an integrated system for bacterial cellulose weaving and dyeing using E.coli. We have achieved one-step synthesis of colored bacterial cellulose through temperature regulation. This project aims to overcome the limitations of bacterial cellulose expressed in E.coli and endow it with hydrophobic properties. It provides a solution for the fashion industry that integrates functional aesthetics with environmentally friendly choices. [Wiki](https://2025.igem.wiki/nau-china) | [Official Page](https://teams.igem.org/5855)https://static.igem.org/peertube/streaming-playlists/hls/07c4b335-b050-462b-aa40-e64942826b84/3692742d-f86f-44d5-914b-c720ab4a41a7-master.m3u8https://video.igem.org/videos/embed/1XCZ7QL84W6rjcatETFwej9000212025-10-16T00:49:59.914ZYES2025 PresentationsNOhttps://video.igem.org/w/5WUF5jiPGtqaFd1F1rzv7Khttps://video.igem.org/lazy-static/thumbnails/a14ec4f3-7197-4f3b-afa2-047d4307e6d8.jpgZQT-Nanjing: KINETiC: Kynurenine-depleting Immuno-reversal Network in E. coli fo... (2025) - Team...**Title:** KINETiC: Kynurenine-depleting Immuno-reversal Network in E. coli for Therapy in Colorectal cancer **Description:** Our project is expected to provide a new idea and method for cancer treatment. In recent years, kynureninase (KYNase) has gradually attracted extensive attention in the field of cancer immunotherapy. We utilized synthetic biology methods and engineered bacteria to express KYNase, regulating the metabolism of the KP pathway within tumor cells, consuming its downstream metabolite Kyn. This inhibits tumor immune escape, enhances the host's immune system response, and achieves tumor cell death. We utilized Escherichia coli BL21 (DE3) as the chassis cell and the hypoxic and high-lactic-acid regulatory ALPaGA subsystem as promoter, to express KYNase in the tumor microenvironment. We also made semi-rational modifications to KYNase, hoping to obtain an enzyme with better catalytic effect. We designed and built a PhiX174E lysis protein module to release KYNase extracellularly at the right time. For biosafety, we designed a suicide switch to prevent engineered strains from being released into the environment. In terms of public science education, we have achieved the ultimate in breadth and depth, paying attention to the education of almost all groups of people, from young children to the elderly, from ordinary people to special groups. Our popular science content is professional and detailed, prepared in collaboration with industry experts, and has safeguards for special groups of people who are hearing and visually impaired. In terms of inclusivity, our team has been engaging with minority groups such as subjects from remote areas and female scientists since the beginning of the project. As the project progressed, we interviewed more diverse interviewee and engaged in more in-depth and long-term acknowledge such as investigating environmental information’s influences on the interviewee’s health conditions. We reached out to more than 20 interview...https://static.igem.org/peertube/streaming-playlists/hls/280f2df6-42e8-47d7-ac45-2a5da8410e13/8a9cbb7e-3e78-4036-9cad-99a27b15ac77-master.m3u8https://video.igem.org/videos/embed/5WUF5jiPGtqaFd1F1rzv7K8810142025-10-15T18:00:13.154ZYES2025 PresentationsNOhttps://video.igem.org/w/u41B3d91o3aXVmeSXErf2Phttps://video.igem.org/lazy-static/thumbnails/31b2c9cc-d06e-4b43-bf19-0ec52087b730.jpgMunich: InkSight (2025) - Team Presentation [English]**Title:** InkSight **Description:** Tattoos have long served as markers of identity and belonging. InkSight repurposes this historical medium for modern medicine as a platform comprising engineered mammalian cells encapsulated in a hydrogel matrix for intradermal delivery as a tattoo. This system enables the real-time, equipment-free detection of circulating biomarkers through direct interrogation of the interstitial fluid. The engineered cells express a Modular Extracellular Sensor Architecture (MESA) for target recognition, which triggers one of three engineered contrast-change mechanisms: expression, assembly, or agglomeration. This response is driven by synthetic melanin-producing compartments, specifically encapsulin nanocages that house tyrosinase to enable localized and safe melanin production, resulting in a visible shift in tattoo contrast. InkSight constitutes, to our knowledge, the first paradigm for a continuous, cell-based tattoo biosensor with a visible output, establishing a foundational platform for decentralized diagnostics and personalized medicine. [Wiki](https://2025.igem.wiki/munich) | [Official Page](https://teams.igem.org/5544)https://static.igem.org/peertube/streaming-playlists/hls/e32b7c6f-e97a-4db7-a025-ef9a9f0dd709/57bc7a4e-e0d6-4cdf-9449-c2fcdbebf872-master.m3u8https://video.igem.org/videos/embed/u41B3d91o3aXVmeSXErf2P8270672025-10-15T18:01:08.517ZYES2025 PresentationsNOhttps://video.igem.org/w/t8uDfAHWLCngFPNDYp8AEuhttps://video.igem.org/lazy-static/thumbnails/9e3814af-f878-4c55-a380-4f263c50e75a.jpgSCUT-China: Engineering Cupriavidus necator for Space Nutrition (2025) - Team Presentation [English]**Title:** Engineering Cupriavidus necator for Space Nutrition **Description:** As humanity advances toward long-term space exploration, sustaining astronaut nutrition has emerged as a critical challenge. The SCUT-China iGEM team presents an innovative synthetic biology solution: engineering the hydrogen-oxidizing bacterium Cupriavidus necator H16 to convert astronaut-expired CO₂ and urea from wastewater into high-value human alpha-lactalbumin within spacecraft. [Wiki](https://2025.igem.wiki/scut-china) | [Official Page](https://teams.igem.org/5781)https://static.igem.org/peertube/streaming-playlists/hls/dbb29a04-d47e-487f-acda-0fa8500ed948/34f083fb-5dce-43db-85c3-0e1bc1c1830f-master.m3u8https://video.igem.org/videos/embed/t8uDfAHWLCngFPNDYp8AEu901092025-10-15T18:01:30.127ZYES2025 PresentationsNOhttps://video.igem.org/w/iRsWyoY68ey3E83McFmNf2https://video.igem.org/lazy-static/thumbnails/c87bb2de-9d43-4b8a-9ed3-6f887e77140f.jpgFudan: DR. sTraTeGY: Engineering Multicellular Yeast for Drug Resistance Mutatio... (2025) - Team...**Title:** DR. sTraTeGY: Engineering Multicellular Yeast for Drug Resistance Mutation Tracking **Description:** Fungal infections and antifungal resistance pose a global crisis, yet current drug discovery methods struggle to track resistance evolution in real-time. Inspired by multicellularity as observable evolution, the Fudan iGEM 2025 team created DR.sTraTeGY. This platform utilizes engineered multicellular "Grape Yeast" with "Timer" and "Recorder" modules to track and visualize antifungal resistance mutations and their evolutionary trajectories in real-time. Combined with the computational model "YeastVerse" to optimize experimental design, we not only advance science but also engage with patients' real-life experiences through inclusivity initiatives. DR.sTraTeGY aims to accelerate antifungal drug development, deepen our understanding of evolution, and address global health challenges with a more human-centered approach. [Wiki](https://2025.igem.wiki/fudan) | [Official Page](https://teams.igem.org/5643)https://static.igem.org/peertube/streaming-playlists/hls/9093679c-0368-423b-a5ce-ee3d19b2df55/1f4913ef-a800-4bc3-8fa6-ff19b2d81388-master.m3u8https://video.igem.org/videos/embed/iRsWyoY68ey3E83McFmNf287352142025-10-15T18:03:07.822ZYES2025 PresentationsNOhttps://video.igem.org/w/71tefgVyj2run9yCvHorj5https://video.igem.org/lazy-static/thumbnails/55ee0500-90c6-4dcf-a0c2-0f329a7c48c6.jpgHeidelberg: PHOENICS: Synthetic Immune Cells to Target the Tumor Microenvironment (2025) - Team P...**Title:** PHOENICS: Synthetic Immune Cells to Target the Tumor Microenvironment **Description:** Solid tumors cause most cancer-related deaths and are protected by a hostile microenvironment with dense matrix barriers, cellular heterogeneity, and immunosuppressive signals. Key tumor cues like soluble ligands and immunomodulatory cytokines shape this niche, making targeted therapy challenging. Receptor-based cell therapies that sense these signals risk systemic activation, creating a trade-off between sensitivity and safety. To address these problems, we present PHOENICS (Phosphorylation Engineered Network for Inducible Controlled Secretion) to enable programmable, ligand-specific cancer therapies. Combining synthetic GPCRs and MESA receptors with kinase and phosphatase computation and tunable expression or secretion outputs, PHOENICS provides rapid, reversible, and retargetable control of therapeutic activity. Supported by the in silico optimization platform SPARC, it offers flexible adaptation to distinct tumor microenvironments and therapeutic effectors. Beyond the bench, we built an educational innovation ecosystem that equips future pioneers with the network and knowledge to navigate the challenges of translational research. Uniting innovation and education, PHOENICS drives modular precision oncology and empowers future translational innovators. [Wiki](https://2025.igem.wiki/heidelberg) | [Official Page](https://teams.igem.org/5775)https://static.igem.org/peertube/streaming-playlists/hls/30a79caf-0d79-4076-8cb8-818889c9f9bc/d4c375de-55f2-4af6-9a14-db81ff2f62c7-master.m3u8https://video.igem.org/videos/embed/71tefgVyj2run9yCvHorj589356462025-10-15T18:04:36.559ZYES2025 PresentationsNOhttps://video.igem.org/w/oN7TLetghXNzxDD7nUSyRmhttps://video.igem.org/lazy-static/thumbnails/a9269979-e8ca-4bd5-93f5-2dfc9c753504.jpgNNU-CHINA: Empowering MTHFR Mutation Diagnosis for Global Healthcare (2025) - Team Presentation [...**Title:** Empowering MTHFR Mutation Diagnosis for Global Healthcare **Description:** In this video, we introduced the project background, detection principle, experimental results, and the human practice combined with our project. [Wiki](https://2025.igem.wiki/nnu-china) | [Official Page](https://teams.igem.org/5902)https://static.igem.org/peertube/streaming-playlists/hls/b89982f6-284e-48c6-bc46-738270e8b1de/ddf458a2-1f22-4d53-9c93-31c0e394ced7-master.m3u8https://video.igem.org/videos/embed/oN7TLetghXNzxDD7nUSyRm8960182025-10-15T17:55:45.584ZYES2025 PresentationsNOhttps://video.igem.org/w/cFyhkKCzaqJ4hqENWtAev1https://video.igem.org/lazy-static/thumbnails/350199df-5804-4779-b80e-72ebca7c253f.jpgNUS-Singapore: JustBITE: A Bite into the Future (2025) - Team Presentation [English]**Title:** JustBITE: A Bite into the Future **Description:** With limited land and resources, Singapore heavily relies on imported food for daily sustenance and disruptions to food production and transport could quickly compromise our food availability. We need a resilient food source that can be produced locally at high quantities and affordable prices. We hope to leverage the power of microbes, to design a new sustainable form of food to solve this. Inspired by the kombucha craze, we identified its cellulose pellicle, known as SCOBY, a Symbiotic Culture Of Bacteria and Yeast, as our nutritious canvas. Using synthetic biology, we want to transform SCOBY into JustBITE, a resilient food source with customizable taste and texture. Our project takes this radical step of reimagining microbes, not as hidden ingredients in fermentation but a revolutionary food source, that could redefine how Singapore, and the world eats. Envisioning a future where every household can safely create JustBITE with our simple machine. [Wiki](https://2025.igem.wiki/nus-singapore) | [Official Page](https://teams.igem.org/5771)https://static.igem.org/peertube/streaming-playlists/hls/5e9a6d36-a65d-464b-9db6-9b89ee5d3da6/0cb772ff-f017-477a-9000-10896fe120d8-master.m3u8https://video.igem.org/videos/embed/cFyhkKCzaqJ4hqENWtAev18940742025-10-15T18:07:43.077ZYES2025 PresentationsNOhttps://video.igem.org/w/8gD99Yc7gvATLNJyU7vT1Vhttps://video.igem.org/lazy-static/thumbnails/c295d129-94b6-4d9d-9ff1-0f8aab2b7117.jpgMITWPU-BHARAT: Opio-Rx: Transforming Opioid Diagnostics Through Rapid, Non-Invas... (2025) - Team...**Title:** Opio-Rx: Transforming Opioid Diagnostics Through Rapid, Non-Invasive Biosensing Technology **Description:** The global opioid epidemic kills 600+ people daily—over 500,000 American lives lost since 1999. In India, 2.3+ million people suffer from opioid addiction, with Punjab and Haryana experiencing alarming proliferation. This $500+ billion global economic disaster demands immediate action, yet current detection methods fail when seconds matter most. Existing diagnostics are too slow, expensive, and complex for real-time emergency response, addiction treatment, and law enforcement—creating a critical gap between urgent need and available solutions. Opio-Rx revolutionizes opioid detection with the world's first rapid, point-of-care platform detecting multiple synthetic opioids—fentanyl, oxycodone, methadone, tramadol, and codeine—from saliva in under 5 minutes. Our breakthrough combines computationally designed aptamers with FRET-based biosensing and AI-powered mobile integration, delivering laboratory-grade accuracy anywhere, anytime. This commercial solution healthcare workers, first responders, and treatment providers need. Opio-Rx saves lives by enabling instant, life-or-death decisions preventing overdoses, transforming addiction recovery. Molecular diagnostics starts here. [Wiki](https://2025.igem.wiki/mitwpu-bharat) | [Official Page](https://teams.igem.org/5882)https://static.igem.org/peertube/streaming-playlists/hls/3adf0410-75e4-4f99-b185-7497ed4dbac9/80e2c316-70cb-4e18-91a7-dc8b7e26f479-master.m3u8https://video.igem.org/videos/embed/8gD99Yc7gvATLNJyU7vT1V8040212025-10-15T18:04:07.932ZYES2025 PresentationsNOhttps://video.igem.org/w/s8ifPYTUJPK787DSWsUy6ohttps://video.igem.org/lazy-static/thumbnails/3dcbda0a-a7eb-465d-925d-b6a9d156aeac.jpgBIT: KIT:CRC-Killer In and ouT (2025) - Team Presentation [Bengali]**Title:** KIT:CRC-Killer In and ouT **Description:** Colorectal cancer (CRC) is the third most common cancer and the second leading cause of cancer death globally. Despite advances in chemotherapy, targeted therapy, and immunotherapy, treatment remains limited by drug resistance and toxicity. Our team presents the “CRC-killer in and out” integrated delivery kit, combining endogenous oral capsules with engineered bacteria and exogenous intelligent microneedle patches for comprehensive CRC therapy. The “in” module combined with complete modelingenhances intestinal targeting and bioavailability via peptide-mediated accumulation, while the “out” module employs minimally invasive microneedles with iontophoresis-enhanced transdermal delivery and responsive drug release. Together, they enable individualized administration, improved compliance, and non-professional usability. [Wiki](https://2025.igem.wiki/bit) | [Official Page](https://teams.igem.org/5623)https://static.igem.org/peertube/streaming-playlists/hls/d392721a-853f-4c44-b72e-d3a7766ed238/6641e0e0-9a91-41dd-8e8b-5ee4c04c7bcb-master.m3u8https://video.igem.org/videos/embed/s8ifPYTUJPK787DSWsUy6o813022025-10-15T18:03:18.356ZYES2025 PresentationsNOhttps://video.igem.org/w/rNL1fr2QooaB9w9QFDgqpwhttps://video.igem.org/lazy-static/thumbnails/8b078132-3252-4f83-b6d1-c8e5ec5072ee.jpgCSMU-Taiwan: Coliguard (2025) - Team Presentation [English]**Title:** Coliguard **Description:** Ulcerative colitis (UC) is driven in part by the IL-23 → JAK2/STAT3 axis. Approved anti-IL-23 monoclonal antibodies work but require injections, are costly, and carry systemic immunosuppression risks. We propose localized mucosal neutralization: three de-patented anti-IL-23p19 scFv prototypes (A/B/C) designed by motif-guided CDR engineering with AlphaFold checks, plus two mAb-derived scFv (risankizumab-p19, ustekinumab-p40) as performance baselines. Validation: recombinant-protein ELISA for binding and a Caco-2 inflammation model measuring p-JAK2^Y1007/1008 and p-STAT3^Y705 inhibition. Long-term, the best prototype will be secreted by engineered '''Lactobacillus acidophilus''' to reduce cost and systemic exposure. [Wiki](https://2025.igem.wiki/csmu-taiwan) | [Official Page](https://teams.igem.org/5898)https://static.igem.org/peertube/streaming-playlists/hls/d0fbcc6c-43a0-4982-9064-eef0b109b9bc/b2d0c759-d740-4a8a-9fed-b387c685c608-master.m3u8https://video.igem.org/videos/embed/rNL1fr2QooaB9w9QFDgqpw7100162025-10-15T18:09:18.002ZYES2025 PresentationsNOhttps://video.igem.org/w/mhumPm3XDvwfZiobTm4ubchttps://video.igem.org/lazy-static/thumbnails/05603c52-128e-422d-88a6-6315a89fb1cc.jpgKorea-CX: PPV (2025) - Team Presentation [English]**Title:** PPV **Description:** PPV [Wiki](https://2025.igem.wiki/korea-cx) | [Official Page](https://teams.igem.org/5925)https://static.igem.org/peertube/streaming-playlists/hls/a444267a-fa3b-4306-b67f-4d3c3500ed57/cd4319aa-f4ee-45cb-8899-f1f3b5821b4f-master.m3u8https://video.igem.org/videos/embed/mhumPm3XDvwfZiobTm4ubc5040262025-10-15T17:49:25.838ZYES2025 PresentationsNOhttps://video.igem.org/w/rJbHARe9CYgXtr7B7tPw28https://video.igem.org/lazy-static/thumbnails/0aaca3af-6a08-4d7e-b0dc-110dc8667eac.jpgTianjin: NO TITLE (2025) - Team Presentation [English]**Title:** NO TITLE **Description:** NO DESCRIPTION [Wiki](https://2025.igem.wiki/tianjin) | [Official Page](https://teams.igem.org/5894)https://static.igem.org/peertube/streaming-playlists/hls/d0584f40-da41-413e-8353-e9738c29df01/9efcef25-ebc2-497a-ba0a-bcafefab355e-master.m3u8https://video.igem.org/videos/embed/rJbHARe9CYgXtr7B7tPw28285292025-10-15T17:45:36.718ZYES2025 PresentationsNOhttps://video.igem.org/w/wbro9QDC8hmBgAHHSKCgcDhttps://video.igem.org/lazy-static/thumbnails/b1e2cfa4-54cf-4a1c-bfbc-ea04fcbff7ef.jpgBiotech XJUH: NO TITLE (2025) - Team Presentation [English]**Title:** NO TITLE **Description:** NO DESCRIPTION [Wiki](https://2025.igem.wiki/biotech-xjuh) | [Official Page](https://teams.igem.org/5943)https://static.igem.org/peertube/streaming-playlists/hls/f4673d5b-50ea-4fc8-a703-b305176de30f/921c7769-7bb1-4821-8e9e-decd5d9d1ad2-master.m3u8https://video.igem.org/videos/embed/wbro9QDC8hmBgAHHSKCgcD1900142025-10-15T17:49:19.745ZYES2025 PresentationsNOhttps://video.igem.org/w/45RoJd5RXiUBoujKnAYH1Phttps://video.igem.org/lazy-static/thumbnails/e268d1a2-ebc3-47d2-bec1-3293916aa5a0.jpgBIT-LLM: NO TITLE (2025) - Team Presentation [English]**Title:** NO TITLE **Description:** NO DESCRIPTION [Wiki](https://2025.igem.wiki/bit-llm) | [Official Page](https://teams.igem.org/5984)https://static.igem.org/peertube/streaming-playlists/hls/18f8d472-98cd-4bde-b9a5-f9cf9424f3b3/d9a96a2f-ab21-4c10-97ea-d748dd08a03f-master.m3u8https://video.igem.org/videos/embed/45RoJd5RXiUBoujKnAYH1P8850332025-10-15T18:05:41.548ZYES2025 PresentationsNOhttps://video.igem.org/w/t5nUCZ8fobmijAjLZtMbkdhttps://video.igem.org/lazy-static/thumbnails/584428bc-1767-4497-8073-1aa4bea26872.jpgETH-Zurich: NO TITLE (2025) - Team Presentation [English]**Title:** NO TITLE **Description:** NO DESCRIPTION [Wiki](https://2025.igem.wiki/eth-zurich) | [Official Page](https://teams.igem.org/6022)https://static.igem.org/peertube/streaming-playlists/hls/db43384b-ac00-4763-a84c-6aa118559c1a/4b54093e-7a6b-432d-af02-cfcabece8e1a-master.m3u8https://video.igem.org/videos/embed/t5nUCZ8fobmijAjLZtMbkd8250472025-10-15T18:08:02.500ZYES2025 PresentationsNOhttps://video.igem.org/w/anzum7Min3i3QJz6Tbxtq6https://video.igem.org/lazy-static/thumbnails/52d7e6f3-bd8e-4f44-a421-304f523fdef1.jpgWLSA-ShanghaiAcademy: NO TITLE (2025) - Team Presentation [English]**Title:** NO TITLE **Description:** NO DESCRIPTION [Wiki](https://2025.igem.wiki/wlsa-shanghaiacademy) | [Official Page](https://teams.igem.org/6015)https://static.igem.org/peertube/streaming-playlists/hls/4be58159-ecd0-41a8-bdab-30e4c5a41859/db83e900-27f9-4c32-b816-30fa31214d90-master.m3u8https://video.igem.org/videos/embed/anzum7Min3i3QJz6Tbxtq68940862025-10-15T18:08:39.718ZYES2025 PresentationsNOhttps://video.igem.org/w/tswUP5TAXjmmyg4ZoEvVbohttps://video.igem.org/lazy-static/thumbnails/17d039f7-f96c-4661-82ca-393696597404.jpgYAU-China: NO TITLE (2025) [English]YAU-China: NO TITLE (2025) [English]https://static.igem.org/peertube/streaming-playlists/hls/de5b2192-83ea-4e36-baa1-79b444a30036/c7db08f3-b036-4820-b12b-66558fa47059-master.m3u8https://video.igem.org/videos/embed/tswUP5TAXjmmyg4ZoEvVbo9030232025-10-15T18:09:36.554ZYES2025 PresentationsNOhttps://video.igem.org/w/tPWZYTcAQvVo5rpxVWDVfbhttps://video.igem.org/lazy-static/thumbnails/97e99b56-2e55-450b-a9d3-386f10c33034.jpgBBS-Kuwait: NO TITLE (2025) - Team Presentation [English]**Title:** NO TITLE **Description:** NO DESCRIPTION [Wiki](https://2025.igem.wiki/bbs-kuwait) | [Official Page](https://teams.igem.org/6034)https://static.igem.org/peertube/streaming-playlists/hls/e1589883-af10-4f6a-bcf5-391e485a4332/ead93dd9-795d-4372-a8e2-9d124f2e80d4-master.m3u8https://video.igem.org/videos/embed/tPWZYTcAQvVo5rpxVWDVfb3655252025-10-15T18:05:10.800ZYES2025 PresentationsNOhttps://video.igem.org/w/bQgZunDUtXZeLsM2HMSZr5https://video.igem.org/lazy-static/thumbnails/ca5fa86c-d8e2-49b3-b8ee-c7ea307ff0ae.jpgShanghaitech-China: ShanghaiTech_Presentation_Video (2025) - Team Presentation [English]**Title:** ShanghaiTech_Presentation_Video **Description:** This is the overall presentation video of our project: DOCTOR. [Wiki](https://2025.igem.wiki/shanghaitech-china) | [Official Page](https://teams.igem.org/5553)https://static.igem.org/peertube/streaming-playlists/hls/57b8f146-8c74-4227-a742-4fbd3c854db2/f5b19364-c326-4f92-919e-445c5335dde4-master.m3u8https://video.igem.org/videos/embed/bQgZunDUtXZeLsM2HMSZr586401332025-10-16T01:18:55.570ZYES2025 PresentationsNOhttps://video.igem.org/w/kk17CmgL8bcBMoo3Nt22b2https://video.igem.org/lazy-static/thumbnails/9486b4f3-debf-4617-99ae-4da80525d34a.jpgHUBU-China: Rational Engineering of Novel Ultra-Efficient Amidohydrolases for Oc... (2025) - Team...**Title:** Rational Engineering of Novel Ultra-Efficient Amidohydrolases for Ochratoxin A Degradation **Description:** By integrating enzyme engineering with synthetic biology, we have developed a highly efficient and specific biodegradation platform with exceptional potential. Starting from ADH3—the most active OTA hydrolase reported to date—we rationally designed the S88E mutant, whose additional hydrogen-bond network increases catalytic efficiency (kcat/KM) by 3.7-fold. To surmount the remaining catalytic bottleneck, we mined the sequence space of ADH3 and identified the homologous enzyme LIADH (73 % identity) that possesses twice the native activity of ADH3. Structure-guided redesign of LIADH yielded the I326A variant; removal of the γ-branched side chain relieves steric congestion at the acyl-enzyme intermediate, affording a further 75 % improvement in activity. Collectively, we obtained two high-performance biocatalysts—ADH3-S88E and LIADH-I326A—and accomplished the first comprehensive structural, kinetic, and mechanistic characterization of any OTA hydrolase. [Wiki](https://2025.igem.wiki/hubu-china) | [Official Page](https://teams.igem.org/5577)https://static.igem.org/peertube/streaming-playlists/hls/9c84d62a-2e9f-4c87-a883-b2da235fcc81/93d857b3-9c12-42f3-98ed-45244b99b8ee-master.m3u8https://video.igem.org/videos/embed/kk17CmgL8bcBMoo3Nt22b28930612025-10-16T08:42:49.307ZYES2025 PresentationsNOhttps://video.igem.org/w/wqTMsPxQF73CJqZuDok3NJhttps://video.igem.org/lazy-static/thumbnails/b31babff-a00f-4c88-8ec9-a4089b72afce.jpgUGA: ExoSPY : Mission Pancreas - Engineering Exosomes to Outsmart Cancer (2025) - Team Presentati...**Title:** ExoSPY : Mission Pancreas - Engineering Exosomes to Outsmart Cancer **Description:** CLASSIFIED MISSION BRIEFING Let us introduce ExoSPY, a theranostic system designed to detect and treat pancreatic cancer using engineered exosomes, nature’s own nanocarriers. By combining synthetic biology, targeted delivery, and molecular sensing, ExoSPY turns exosomes into biological spies capable of infiltrating tumors, identifying cancerous cells, and releasing therapeutic payloads with precision. However, ExoSPY is much more than that. It’s about encounters, moments of doubt, scientific minds awakening… and above all, it’s about a team that gives 1000%. Join the mission to revolutionize cancer diagnosis and treatment, one exosome at a time. #ExoSPY #iGEM2025 #SyntheticBiology #CancerResearch #PancreaticCancer #GrenobleINP #PhelmaUGA #InnovationInBiotech #HumanPractices #Diagnosis #Therapeutic #Theranostic #UGA [Wiki](https://2025.igem.wiki/uga) | [Official Page](https://teams.igem.org/5825)https://static.igem.org/peertube/streaming-playlists/hls/f66bec56-f1d8-4e03-b349-69b9391f36d6/3be9bc3a-a8b5-4168-988d-b7c2ae7430dc-master.m3u8https://video.igem.org/videos/embed/wqTMsPxQF73CJqZuDok3NJ88751112025-10-16T12:33:50.440ZYES2025 PresentationsNOhttps://video.igem.org/w/bsJW41UrJPKC48BSfgwehahttps://video.igem.org/lazy-static/thumbnails/52385ea8-204d-44e8-9bf4-f9213d1cbf6f.jpgIZJU-China: FoCas - a Novel Antimicrobial-Resistance Treatment andInfectivity In... (2025) - Team...**Title:** FoCas - a Novel Antimicrobial-Resistance Treatment andInfectivity Inhibition Treatform **Description:** Antimicrobial resistance — one of the world’s greatest medical challenges — makes once-curable infections deadly again. Our team introduces FoCas, a DNA-origami and CRISPR-based treatform that doesn’t just kill bacteria — it reverses resistance itself. By precisely removing the mecA gene and disrupting bacterial infectivity, FoCas transforms MRSA back into a sensitive, treatable form. A programmable, safe, and adaptable platform — built for the post-antibiotic era. [Wiki](https://2025.igem.wiki/izju-china) | [Official Page](https://teams.igem.org/5913)https://static.igem.org/peertube/streaming-playlists/hls/54b72eaf-4ced-405b-adfa-cc0ba2a2e6dd/5c5a2d0b-9121-4efc-9d26-6e1aa76039a4-master.m3u8https://video.igem.org/videos/embed/bsJW41UrJPKC48BSfgweha81603282025-10-16T13:35:14.102ZYES2025 PresentationsNOhttps://video.igem.org/w/rotexG1eMmJuXdM7QsaYcRhttps://video.igem.org/lazy-static/thumbnails/9a9c05ba-8159-4a22-98c9-116ae45fe021.jpgHow to join in-person Judging Sessions (2025 iGEM Competition)My Judging Session is in 10 minutes! Do I have everything I need? ✔ My team ✔ My charged laptop ✔ My charged laptop ✔ jamboree.igem.org/2025/judging open ✔ Chargers and ethernet adapters 5 minutes before the judging session, my team enters the judging room to set up ✔ Plug in the laptop to power and ethernet. ✔ Join the Zoom Room from jamboree.igem.org/2025/judging. ✔ Share your presentation on Zoom. If you forget what to do, look at the checklist on the lectern! Ready to go!https://static.igem.org/peertube/streaming-playlists/hls/cd979cda-f954-48fc-870c-1a14987e0f97/90b1fbf6-0de1-476a-808d-bb228a1ad146-master.m3u8https://video.igem.org/videos/embed/rotexG1eMmJuXdM7QsaYcR5902602025-10-20T07:36:56.254ZYESiGEM FoundationNOhttps://video.igem.org/w/sBpFB8KiQpJ8WJXJcCFCt7https://video.igem.org/lazy-static/thumbnails/5c5cf527-3dde-437f-8401-41413a245e61.jpgGXU-China: Judging SessionTo combat Helicobacter pylori antibiotic resistance and gastric cancer, we developed an engineered living therapeutic platform. It uses an attenuated H. pylori chassis with natural gastric targeting, integrating luminescence, quorum sensing, and bio-safety modules. Surface-loaded with Chlorin e6 (Ce6) and a lux operon, the bacteria are activated by near-infrared light to generate reactive oxygen species and blue-light phototoxicity, inducing tumor cell apoptosis. A quorum-sensing circuit triggers light emission at a high population density, activating endogenous porphyrins in wild-type H. pylori for a “bystander killing” effect, which also self-regulates the engineered population. For bio-safety, a hypoxia-responsive suicide switch ensures bacterial survival in the stomach but causes programmed death in oxygenated environments. Encapsulated in an oral liposomal delivery system, this platform offers a novel paradigm for overcoming antibiotic resistance and achieving precision gastric cancer therapy. https://static.igem.org/peertube/streaming-playlists/hls/d77f3b70-c392-4dde-9b73-7b3784dde96c/e00ef342-d888-441d-a997-9dd9afcc2d34-master.m3u8https://video.igem.org/videos/embed/sBpFB8KiQpJ8WJXJcCFCt71663062025-11-06T14:56:18.274ZYES2025 Judging SessionsNOhttps://video.igem.org/w/iiasFTj3vHRD9pTyRMGuYihttps://video.igem.org/lazy-static/thumbnails/82efd3e9-dcaa-488c-8b62-4be8c449b8c4.jpgThe Biotechnological Synthesis of RNA CirclesIn the last five years there has been a sudden burst of new research on circular RNAs. These products of alternative RNA splicing were soon to be associated with higher stability in cells, due to their lack of free 3’ and 5’ ends. Their various emerging roles in cell signaling and molecular biology, as well as their exhibited stability, has ignited the interest in their artificial production for biotechnological applications. In this talk we will focus on how their biogenesis led to multiple techniques of their artificial production and try to summarize their potential applications in synthetic biology as well mention their use in our own project.https://static.igem.org/peertube/streaming-playlists/hls/8c10d4d1-9c8a-4e93-b9f9-e57293ffd4e1/04f53856-5c5b-41b1-bda4-2f1156e07596-master.m3u8https://video.igem.org/videos/embed/iiasFTj3vHRD9pTyRMGuYi570042025-11-06T17:31:40.438ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/bd827oSiCDsJgb6SSe4S3qhttps://video.igem.org/lazy-static/thumbnails/79d2770c-fa12-452b-89ba-e626ecdbe98d.jpgScience on Hold: The Impacts of Research Funding Cuts in HIVThe 2025 Stony Brook iGEM team’s research focuses on developing a novel therapeutic delivery system to target HIV. Alarmed by the increase in national grant terminations and budget cuts to HIV research, we decided to create a survey to quantify their effects. We aim to shed light on the extent these funding cuts have disrupted HIV research and impacted the research focus and employment decisions of HIV researchers in New York City and Long Island, areas with high levels of HIV research. This presentation first explores the historical role of research in advancing HIV treatment and the continued importance of HIV research today. We will then give an overview of the recent funding cuts before sharing our survey methodology and preliminary findings. Our ultimate goal is to publish the survey data to underscore the urgent need to restore and strengthen support for HIV research.https://static.igem.org/peertube/streaming-playlists/hls/52aca335-d16a-4512-8109-29fc6985081c/555d60bb-9cd6-4c16-b7a3-c9cd1657bed5-master.m3u8https://video.igem.org/videos/embed/bd827oSiCDsJgb6SSe4S3q6060162025-11-06T17:31:40.742ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pp8qKnxemuGF9W1PjXYiy4https://video.igem.org/lazy-static/thumbnails/b2ea39d4-cb3b-4a2b-bc1a-3dc868e1f73d.jpgFalling Forever: Simulating Microgravity on EarthJoin a journey into the impact of microgravity on space exploration and synthetic biology. Discover how and why weightlessness alters microbial behavior and gene expression, reshaping our understanding of life beyond Earth. Learn how scientists simulate these conditions on Earth, especially using Random Positioning Machines (RPMs), to conduct groundbreaking experiments and how you can do it at home. This talk highlights how studying biological systems under weightless conditions drives advances in-situ resource utilization and other solutions for long missions to the Moon, Mars and beyond.https://static.igem.org/peertube/streaming-playlists/hls/bd7cdf6c-6227-4e33-83d8-f757b3059ad7/a9a1ffcf-50c2-4305-a033-a9ff2152cf3d-master.m3u8https://video.igem.org/videos/embed/pp8qKnxemuGF9W1PjXYiy45390302025-11-06T17:32:54.319ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/wKqNa5jFM29NWChryop8mXhttps://video.igem.org/lazy-static/thumbnails/78ed9621-c9f2-41a3-a8be-5e7523951f1e.jpgQuorum Sensing: Biology’s First InternetBefore humans built fiber-optic cables, microbes had already developed their own communication networks. Through quorum sensing, bacteria release and detect chemical signals to coordinate behavior, enabling biofilm formation, virulence, and cooperation. This ancient system functions like an internet, with messaging protocols, activation thresholds, and vulnerabilities to disruption. This talk explores quorum sensing as both a product of evolution and a tool for synthetic biology. By learning to program microbial “languages,” we open the possibility of living consortia that sense, compute, and respond to their environments. Imagine microbes that clean water, heal tissues, or deliver drugs through molecular messaging. At the same time, new risks emerge if engineered signals leak into ecosystems that never chose to participate. Quorum sensing asks us to reconsider communication itself and raises a profound question: what does it mean to design with networks that are alive?https://static.igem.org/peertube/streaming-playlists/hls/f9026c40-e0ed-4143-a24f-dae48802d9f3/bbed7d06-1b37-4c35-a5d2-69476ce22d95-master.m3u8https://video.igem.org/videos/embed/wKqNa5jFM29NWChryop8mX5390112025-11-06T17:33:24.442ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mumXfbHUnmRbDDvEkzYXGLhttps://video.igem.org/lazy-static/thumbnails/6f4f50c4-a21e-4b4c-bfb4-2aa51939e057.jpgHow AI Modeling in Protein Design Transformed Synthetic Biology ResearchThis discussion will focus on the immense potential of protein design in human health, including applications in drug discovery, health monitoring, and even gene regulation. We will also discuss why AI modeling is essential to this field, giving an overview of the architectures and functions of neural-network based programs such as AlphaFold, RF Diffusion, and ProteinMPNN that make protein design possible.https://static.igem.org/peertube/streaming-playlists/hls/a5ec82dd-7c13-4bdd-b6f7-0a7bf0c8b3a8/a72b822b-3838-4db6-9f1e-ff53075459a3-master.m3u8https://video.igem.org/videos/embed/mumXfbHUnmRbDDvEkzYXGL590032025-11-06T17:34:29.785ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1hQsroGXNZSC3Tp2wwXWfkhttps://video.igem.org/lazy-static/thumbnails/437aebad-2440-4c4d-9188-aec444e28677.jpgLarge Language Models for Evolving De Novo Cas13Our team employed Esm-2 for de novo sequence prediction. We also carried out critical and intentional literature survey into the models we were considering, which revealed that ESM2 and similar models are not inherently designed to generate long contiguous sequences without substantial stretches of unknown tokens. To address this limitation, we undertook a fine-tuning process aimed at enabling ESM2 to generate extended sequences in a single pass. We integrated infilling objectives inspired by models such as BERT-Gen and SpanBERT. These approaches replace random token masking with contiguous span masking and train the model to reconstruct entire masked spans, thereby promoting coherent, multi-token generation. The optimisation pipeline, incorporating this span-infilling objective, was developed entirely from scratch.https://static.igem.org/peertube/streaming-playlists/hls/0259c324-f1a7-440e-8e5b-fa5d160586cf/eab7ad5a-ef27-4b52-aeec-2da414296776-master.m3u8https://video.igem.org/videos/embed/1hQsroGXNZSC3Tp2wwXWfk663022025-11-06T17:34:51.228ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/jiRMV7HQv4mkr8QJLuWNG9https://video.igem.org/lazy-static/thumbnails/1417c390-1e8f-4ab8-8344-bdcdc82d2611.jpgThe Digital Architect: Building Tomorrow's Proteins with Artificial IntelligenceTraditional protein design can be a slow, trial-and-error process. What if we could design novel proteins as precisely as an architect designs a building? This is now possible with Artificial Intelligence. By using deep learning models—similar to those that generate art or text—we can now create entirely new protein structures with specific functions, from scratch. This breakthrough is accelerating the development of everything from engineering therapeutic proteins to designing novel proteins that unlock enzyme functions and reprogramme biomolecular systems. In this talk, I will present my understanding and thoughts. Welcome everyone to listen and discuss with mehttps://static.igem.org/peertube/streaming-playlists/hls/9442d33e-094a-499b-be40-678ac026fac0/a9cac77a-57bb-4a79-b3e7-679d24ad2ad5-master.m3u8https://video.igem.org/videos/embed/jiRMV7HQv4mkr8QJLuWNG9602042025-11-06T17:34:54.103ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7X8Pvzw78kSibLj5ckUJEwhttps://video.igem.org/lazy-static/thumbnails/d8358b8c-1096-4a15-9ff4-ab28fc34f20c.jpgEmpowering Synthetic Biology with AI: Tools, Vision, and ImpactThis talk explores the role of artificial intelligence in synthetic biology, focusing on how computational tools accelerate discovery and design. We’ll review AI techniques used in biological research and discuss multimodal data integration. Real-world examples will highlight applications such as quantum computing for genetic analysis, systems biology modeling, and AI for bioimage processing.https://static.igem.org/peertube/streaming-playlists/hls/38498eda-b1a8-4900-ad49-f5c7b77ef0d2/74b17b77-7c28-4d41-b555-7e9daeeacd84-master.m3u8https://video.igem.org/videos/embed/7X8Pvzw78kSibLj5ckUJEw724052025-11-06T17:35:45.223ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/84o6XY6h2scAoD8iVfmGinhttps://video.igem.org/lazy-static/thumbnails/514b273d-607a-4c21-a22e-e7b95cce2e02.jpgBioInnovation Fair - Lightning PitchesEach year, the BioInnovation Fair brings together high-growth startups in the synthetic biology sector to showcase their innovations. In this session, each of our BioInnovation Fair kiosk holders will give a lightning pitch on their technology and potential pathways for collaboration.https://static.igem.org/peertube/streaming-playlists/hls/3928d2c3-3b2d-47df-be2e-4743fb24626f/0d7d8b54-3f93-491c-8257-92b65d3029f2-master.m3u8https://video.igem.org/videos/embed/84o6XY6h2scAoD8iVfmGin1788052025-11-06T17:38:36.894ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/wFKdeszo9nozjC47vGUUVXhttps://video.igem.org/lazy-static/thumbnails/ac2b608c-69db-44eb-baf6-0db11b8793e6.jpgWhen AI Misleads and Science Guides: Our Journey to Smarter EnzymesIn synthetic biology today, the goal is not only to design proteins that work but to engineer those that perform at their very best. Our modeling team will showcase how saturation mutagenesis—an essential tool of directed evolution—enables us to explore thousands of possible mutations and identify the most promising ones. We will present our workflow: selecting mutational hotspots, applying AI-based prediction tools, and ranking variants by performance potential. However, our journey also highlights the risks of over-relying on AI. By critically examining outputs, consulting authoritative documentation, and grounding predictions in core scientific principles, we overcame these challenges and built a more reliable pipeline. Through close integration of computational modeling with experimental validation, we optimized enzyme efficiency and improved Zosteric Acid (ZA) yield. This talk is not only about methods and results, but also about how modern iGEM teams can bridge prediction with practice in the age of AI.https://static.igem.org/peertube/streaming-playlists/hls/f87ecbe6-d99a-41e3-9305-2730080aa649/77646747-36b2-4e8d-b0a9-e8b8437fa551-master.m3u8https://video.igem.org/videos/embed/wFKdeszo9nozjC47vGUUVX4240182025-11-06T17:39:05.081ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9Dq3Y66AsRAFactWBUMoeDhttps://video.igem.org/lazy-static/thumbnails/5d721cb0-c0c2-4004-b3af-3ea0bc6545ad.jpgAxolotl: A Generative AI Model for Protein DesignAxolotl is a generative AI model developed during our iGEM project (DTU-Denmark). It is named after the endangered salamander, which can regenerate its limbs. In the same way, Axolotl can be used to regenerate parts of protein, with the rest of the protein's sequence as context. It can even be used to generate full protein sequences. This would be akin to spontaneous genesis of an entire Axolotl, where the metaphor breaks down somewhat. We will present the ongoing development of Axolotl, and how we fine-tuned it on specific datasets, such as proteins from thermophiles. With limited WetLab budget, we will present mostly in-silico results such as predicted structures and docking simulations. Axolotl is based on the concept of discrete diffusion, where recent frameworks have showed great promise for natural language processing. Axolotl is as far as we are aware the first attempt to model protein sequences within this framework.https://static.igem.org/peertube/streaming-playlists/hls/46027369-05af-4cde-8a8a-89b135d97757/3c9a61c8-8f22-4cdc-89bc-958180eceeb5-master.m3u8https://video.igem.org/videos/embed/9Dq3Y66AsRAFactWBUMoeD5550112025-11-06T17:39:09.869ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/uKLCPv4XHaLBB7aDawpGhJhttps://video.igem.org/lazy-static/thumbnails/2c730e28-8cc5-4097-bbc7-e2605d061e73.jpgAI-Powered Pathways: Accelerating Solutions in Synthetic BiologyArtificial intelligence is transforming how we design, test, and optimize biological systems. By integrating machine learning with synthetic biology, researchers can rapidly predict gene interactions, engineer novel pathways, and accelerate the discovery of therapeutic and industrial applications. This talk explores how AI-driven approaches are reshaping the field, bridging computation and biology to unlock innovations that were once beyond reach.https://static.igem.org/peertube/streaming-playlists/hls/e8dc5f2c-3cd5-40cf-8729-53ac8d146b42/5d687873-353a-4adb-aef7-45f25167b4b7-master.m3u8https://video.igem.org/videos/embed/uKLCPv4XHaLBB7aDawpGhJ579022025-11-06T17:40:11.161ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8xLwn6tyCVETRYuX426rRuhttps://video.igem.org/lazy-static/thumbnails/74f7b91c-f175-4227-93b1-51a8a642bae4.jpgReimagining Biology with Modular DesignBiobricks as the basis of an iGEM project means a focus on modular systems where components can be swapped in and out. We want to demonstrate how building platforms in a modular fashion can lead to a vast array of potential real-world impact: from portable formats to high-throughput machines, from light-weight software that could run rapidly on consumer electronics to large-scale algorithms for cloud-or-cluster computing deployment. We can then focus down into how a biochemical toolbox can be combined in different ways to answer specific questions at hand across the range of the central dogma, and beyond: DNA, RNA, protein, and metabolites.https://static.igem.org/peertube/streaming-playlists/hls/3d1f7750-f5d5-41ac-b475-8d2bcb1ae032/39d6fea0-4b21-4cfc-a16b-09a1fa486abe-master.m3u8https://video.igem.org/videos/embed/8xLwn6tyCVETRYuX426rRu546032025-11-06T17:41:16.556ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/jNEYkoCUPnqrqD8mhAaCRMhttps://video.igem.org/lazy-static/thumbnails/5fd37324-f89d-4049-b034-c23728d67180.jpgIncreasing Global Access to the BioeconomyDIscussion of current and future initiatives to increase accessibility to synthetic biology in low resource settings.https://static.igem.org/peertube/streaming-playlists/hls/9848b9e8-960e-42d1-97cd-3a7152b5d55f/43ed158a-3006-4f50-82bd-ccb5c080e217-master.m3u8https://video.igem.org/videos/embed/jNEYkoCUPnqrqD8mhAaCRM1864012025-11-06T17:41:34.723ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/bkhiF7ZAXanmGVQFDLvj5zhttps://video.igem.org/lazy-static/thumbnails/0973c301-cf23-40e5-b915-e5f542c54700.jpgShaping the Future of Synthetic Biology Education: Webinar Series and Resource DevelopmentIn 2020, the Engineering Committee began the development of a webinar series of best practices for synthetic biology. This has covered a range of topics, including project ideation, DBTL cycle, modelling, wet lab, communication of teams’ projects, and how to effectively document your project. As iGEM continues to evolve and the needs of teams change, we are looking for your input on what resources to prioritize and how to best get these in front of teams as the competition happens. Come participate in a discussion with several volunteer Engineering Committee members on the future of educational programming from our committee.https://static.igem.org/peertube/streaming-playlists/hls/53ac90fe-2c96-413f-9806-0a91700cfbb9/e3d85d30-de5a-4aed-b641-5857f7d83ea9-master.m3u8https://video.igem.org/videos/embed/bkhiF7ZAXanmGVQFDLvj5z1501022025-11-06T17:42:27.379ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/iapnLsKpkKhs4c4xWTU3Xthttps://video.igem.org/lazy-static/thumbnails/8175c13b-4ff3-45ba-960b-80b3740b5e2e.jpgOutbreaks in Action: How Simulations Bring Science to LifeJoin the Operation Outbreak team for an interactive look at how outbreak simulations turn classrooms into living laboratories. We’ll explore how students take on the roles of scientists, public health officials, and community leaders to track, contain, and learn from a hands-on epidemic—plus share highlights and data from Tuesday's simulation.https://static.igem.org/peertube/streaming-playlists/hls/8afb74e9-13d9-4bfd-8056-1d2d9712b329/fc66f16a-d3f3-4792-abf1-11e8d3abdf02-master.m3u8https://video.igem.org/videos/embed/iapnLsKpkKhs4c4xWTU3Xt744002025-11-06T17:43:01.270ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/kYAR17GMPobgk9eTp7oGRuhttps://video.igem.org/lazy-static/thumbnails/782c00bd-089b-4332-9985-df038ff8a178.jpgSmart Models Think Like ScientistsAI alone cannot meet the challenges of life itself. But when we infuse it with human curiosity, scientific wisdom, and symbolic reasoning, it becomes something more — a collaborator in our quest to understand and design biology. Together, we can transform AI from a black box into a beacon for discovery.https://static.igem.org/peertube/streaming-playlists/hls/a1c4c273-1c27-4b9a-98c8-2778e56b0146/26941d7e-11c2-476a-8156-b5c8d32baeb8-master.m3u8https://video.igem.org/videos/embed/kYAR17GMPobgk9eTp7oGRu514002025-11-06T17:43:12.680ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/45wPMdGnDry11PbMNEjTcNhttps://video.igem.org/lazy-static/thumbnails/ac776a44-7539-49f2-b4b7-7787380f4884.jpgiGEM Career FairConnect directly with company representatives in a fast-paced, interactive “speed-dating” format! This session is your chance to ask questions, explore open opportunities, and gain insights into what it takes to succeed in the biotech and life sciences industry. Learn about essential skills, career paths, and company cultures in one dynamic session.https://static.igem.org/peertube/streaming-playlists/hls/18ed630b-746b-4b1d-aff2-0d0316d76c08/18d4cf7b-9cec-417f-96ae-4a380f902010-master.m3u8https://video.igem.org/videos/embed/45wPMdGnDry11PbMNEjTcN2115002025-11-06T17:43:24.300ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/s8qsrojE4i41LB73EbSjTJhttps://video.igem.org/lazy-static/thumbnails/bf03b250-2e7d-4cc0-95f7-484b69ac7f2d.jpgDe-risking DeepTech Innovation for InvestmentDeepTech has the power to change the world. However, early-stage funding for deeptech research is notoriously difficult. How early is "too early" for early-stage investment? This session aims to discuss the proof points needed for science-driven startups to prove their technology and raise institutional funding.https://static.igem.org/peertube/streaming-playlists/hls/d396e20b-55c7-4360-9b05-f41e901cbaf0/116b0a9c-7397-46a8-946a-e6277b902e5c-master.m3u8https://video.igem.org/videos/embed/s8qsrojE4i41LB73EbSjTJ2703022025-11-06T17:43:33.316ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/pxvxLXxX3viZ9UyUzKPBYqhttps://video.igem.org/lazy-static/thumbnails/0a969367-7ed1-43e5-9c3a-31e9ef106780.jpgThe Scientific Side of Investing - from PhD to VCHow does scientific training translate into investor acumen? This session unpacks the journey from researcher to VC and explores how scientist-investors identify and evaluate technical strengths in DeepTech startups.https://static.igem.org/peertube/streaming-playlists/hls/bea8749f-6b44-475c-b218-89b6b7cbd65c/a3a07e93-9a87-4098-9162-1e21de9a0cdc-master.m3u8https://video.igem.org/videos/embed/pxvxLXxX3viZ9UyUzKPBYq2954032025-11-06T17:43:34.533ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/8xKqRcQSJJUkXzgsoLvASZhttps://video.igem.org/lazy-static/thumbnails/10e0b49a-3083-4702-bada-ce0ec2cb6225.jpgSynthetic Biology Beyond Earth: Challenges and Opportunities in SpaceExploring how synthetic biology can sustain life beyond Earth. This talk highlights key challenges, solutions, and future directions for space SynBio and how iGEM can lead the Spatial Journey.https://static.igem.org/peertube/streaming-playlists/hls/3d1eca8c-619d-4bee-87ac-2cd5bf52fe5d/61848b6f-7670-4f11-9f80-6ca6c36f4f27-master.m3u8https://video.igem.org/videos/embed/8xKqRcQSJJUkXzgsoLvASZ904012025-11-06T17:43:39.620ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/7NS5bRVLzL4apG8CqHsLJqhttps://video.igem.org/lazy-static/thumbnails/5128e7af-6f23-4059-87ce-d60638767f68.jpgFrom iGEM to StartupiGEM alumni are uniquely equipped to understand how scientific research can be applied to real-world challenges. As a testament, ventures founded by iGEM alumni have raised over $3 billion in funding and created more than 2000 jobs worldwide. This session explores the journey from iGEM project to successful startup founder, and what it takes to make that leap.https://static.igem.org/peertube/streaming-playlists/hls/3721e749-8af1-4851-97fa-6721c729b6ec/88f3ffbb-7c1d-4e67-a6ba-c59eb2a1065d-master.m3u8https://video.igem.org/videos/embed/7NS5bRVLzL4apG8CqHsLJq2994012025-11-06T17:43:40.007ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/psHoZowCj4xDipKTAuBzWNhttps://video.igem.org/lazy-static/thumbnails/aac45df0-2723-4caf-a4b1-1aa3db25cf90.jpgFounders of the Venture FoundrySince 2018, a total of 75 teams have taken to the stage in the flagship Startup Showcase and shared their visions to change the world with synthetic biology. This session aims to highlight the stories of previous Startup Showcase alumni, and share the key learnings from their biofounder journey.https://static.igem.org/peertube/streaming-playlists/hls/bdfd09e2-f1cc-4e43-b580-fa01f9c7cdc6/51366f5d-d816-48f6-8c8f-433c20479de8-master.m3u8https://video.igem.org/videos/embed/psHoZowCj4xDipKTAuBzWN2868002025-11-06T17:43:42.036ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/1gsonRjffpg9cxUvLfFc1dhttps://video.igem.org/lazy-static/thumbnails/792dac03-066d-46a8-adc7-56f5719f3cb9.jpgPlant Synthetic BiologyPlant synthetic biology, which emerged in the early 2000s from genetic engineering and systems biology, now enables unprecedented control over plant traits through CRISPR-based genome editing, metabolic pathway redesign, and synthetic genetic circuits, transforming model plants and crops into climate-resilient varieties, bioreactors for pharmaceuticals and materials, and bioremediation tools. Following several successful iGEM projects, and the iGEM interlab study focusing on Plant engineering (still on-going) in this panel discussion, we will discuss the biggest challenges in Plant SynBio, like transferability between species, taking results to the market. We will also discuss the enormous potential for the future of Plant SynBio.https://static.igem.org/peertube/streaming-playlists/hls/02286ad9-72b9-4f3e-9441-a7ab7ee43750/ff5540db-8496-4c52-9a17-538886afe931-master.m3u8https://video.igem.org/videos/embed/1gsonRjffpg9cxUvLfFc1d18110132025-11-06T17:43:47.043ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/eEWSyFvReAMQmGyAtmwvLahttps://video.igem.org/lazy-static/thumbnails/2a23abef-f919-44d9-bdab-d13ba6c16a3d.jpgCommunity as a Cheat CodeIt takes a village to raise a startup. This session explores how community can give founders an unfair advantage to speed up idea validation, open doors to resources, and turn momentum into scalable growth.https://static.igem.org/peertube/streaming-playlists/hls/6eb6e1bc-37d0-4922-ba52-a6a123e7e165/21d55c4e-2056-4d02-a1a8-fa4daf272b5b-master.m3u8https://video.igem.org/videos/embed/eEWSyFvReAMQmGyAtmwvLa2876012025-11-06T17:43:49.092ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/tRrEbQ9UJvXpwk7br8ETXQhttps://video.igem.org/lazy-static/thumbnails/5e04b82d-403d-4216-a4b1-c08da57644e9.jpgGenScript TriviaTrivia session with interactive games and questions.https://static.igem.org/peertube/streaming-playlists/hls/e18e0047-cbb9-4453-9031-234fe805e552/7487ee51-b1e1-45af-b5bb-6eb1f41d293b-master.m3u8https://video.igem.org/videos/embed/tRrEbQ9UJvXpwk7br8ETXQ917002025-11-06T17:44:22.621ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/i2ofGumqsnktLmC1SyN8qvhttps://video.igem.org/lazy-static/thumbnails/3410651b-2323-4852-8e9c-62027cb44eca.jpgBacterial OptogeneticsCome learn about the many ways to regulate bacterial gene expression using light!https://static.igem.org/peertube/streaming-playlists/hls/89dcd0ad-4ab8-42c6-ab0f-f7491ac9c9f9/db3c283f-db26-4a19-bf6a-4cc3bc1a4259-master.m3u8https://video.igem.org/videos/embed/i2ofGumqsnktLmC1SyN8qv506002025-11-06T17:45:12.046ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/6ApJkug7CXMmSxuLaLzcdjhttps://video.igem.org/lazy-static/thumbnails/90ef8d54-dabc-4647-b96e-5e690be1dfb2.jpgMicrofluidic Paper-Based Sensors for Biosensing Applications: Innovations & ChallengesMicrofluidic paper-based sensors (µPADs) are devices which employ capillary action to guide fluid flow to allow for analyte detection in small fluid samples. They are portable, versatile, cost-effective platforms which are compatible with numerous biosensing techniques and applications in synthetic biology. Thus, µPADs show promise for the development of easy to use, point-of-care medical diagnostics. However, there continue to be barriers in their implementation depending on the application, analyte purity, sample viscosity, or other limitations affecting effective flow. We will review recent advancements, challenges, and key stakeholder feedback in µPADs as medical diagnostic devices.https://static.igem.org/peertube/streaming-playlists/hls/2d4b9b06-98bb-49d0-a1ff-fcc9174ac7de/8fa81216-f29a-4b93-9fd8-5d40898f2ecf-master.m3u8https://video.igem.org/videos/embed/6ApJkug7CXMmSxuLaLzcdj6410182025-11-06T17:46:17.927ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/hfSwiviQpJALR6SN1YsfcVhttps://video.igem.org/lazy-static/thumbnails/cbaf52cc-482d-49fd-b12e-514dfc4fdda8.jpgNext Generation Tools for iGEM: Making Innovation AccessibleToday’s iGEM teams are building the future of synthetic biology with the same cutting-edge tools used by industry leaders. In this panel, scientists from Cradle, Oxford Nanopore, and Opentrons will share how new technologies are transforming our research, speeding up DBTL cycles, and making advanced workflows more accessible to students and start-ups alike. Together, we’ll reflect on how far iGEM – and the greater field of synthetic biology – has come in the last 10 years, and imagine what the next 10 years of innovation will bring.https://static.igem.org/peertube/streaming-playlists/hls/83a5c453-bf4e-41ec-88de-4c1f76ffa9bb/e4c24ecf-75e5-4881-aac2-0f2d3fae263d-master.m3u8https://video.igem.org/videos/embed/hfSwiviQpJALR6SN1YsfcV1891032025-11-06T17:46:36.892ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/wDB8LXwD4WwjvsjMFYr6axhttps://video.igem.org/lazy-static/thumbnails/8bc9db36-2a3b-416a-9125-ec534eedb655.jpgFrugal Science in Synthetic Biology and Science ComicsSaad Bhamla, a 2025 Schmidt Polymath Awardee, will showcase innovative low-cost devices that expand access to synthetic biology and share science comics that inspire readers with the beauty of biomechanics in the natural world.https://static.igem.org/peertube/streaming-playlists/hls/f83254d7-ec17-4e6c-b20f-59d065d852e5/8cb3fb22-147a-4596-857a-8ca9d611b329-master.m3u8https://video.igem.org/videos/embed/wDB8LXwD4WwjvsjMFYr6ax1176012025-11-06T17:47:30.281ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/pbKHmeryX4QBK2bkH79G2Qhttps://video.igem.org/lazy-static/thumbnails/5175d45e-e707-4c76-815d-f19ef9b9818c.jpgsiRNA – The FutureSmall interfering RNA (siRNA) is an incredibly promising tool in modern synthetic biology. Capable of silencing genes with unmatched precision, it has proven effective in halting cancer pathways and disarming microbial infections. Its specificity tied to an overall versatility offers a universal, programmable solution that transcends organisms and environments. siRNA represents a new frontier in biotechnology - one where harmful systems can simply be turned off. Unfortunately, its instability in certain environments, challenging delivery and off-target effects pose as major barriers to its usage. The talk shall explore the revolutionary potential of siRNA technology for varied application, innovative strategies currently being employed to unlock its full promise as a global solution to therapeutics, agriculture and beyondhttps://static.igem.org/peertube/streaming-playlists/hls/bbc290e0-0329-4e08-a36c-0752add51f0a/f262b56d-7108-4781-9fb6-847171913586-master.m3u8https://video.igem.org/videos/embed/pbKHmeryX4QBK2bkH79G2Q6130202025-11-06T17:47:30.629ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cBRwemHGoCZSH5sktv39fDhttps://video.igem.org/lazy-static/thumbnails/4676f301-98f5-47de-8548-95de6be21271.jpgQuantum Leap in Synthetic Biology: Unlocking New FrontiersThis session explores the intersection of quantum computing and synthetic biology, highlighting its transformative potential in molecular modeling, protein folding, and drug discovery. Presentation will cover industrial use cases, accessible learning resources, and future prospects - empowering iGEM teams to leverage 'quantum advantage' in their research and entrepreneurial ventures.https://static.igem.org/peertube/streaming-playlists/hls/5e161363-c530-49b5-b28c-7799a57b4931/d81b6a98-f9d4-4b93-9106-7c031bcbd4e7-master.m3u8https://video.igem.org/videos/embed/cBRwemHGoCZSH5sktv39fD6010152025-11-06T17:48:06.948ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1UXh29gkJK326ButhVmj4uhttps://video.igem.org/lazy-static/thumbnails/4525f96f-06e6-4cd3-8770-a887cd778352.jpgBest Entrepreneurship Prize - Beyond the Winning StrategiesLast year, University of Toronto claimed victory as winners of the Best Entrepreneurship Prize, and Tec-Chihuahua the year before. Who were the Entrepreneurship Leads behind the winning strategies, what did they take away from the iGEM Competition, and where are they now?https://static.igem.org/peertube/streaming-playlists/hls/0764bdbf-ea3f-439f-9e29-8099354ade82/7e49ec76-e297-4008-97d2-7c768fb3ecd1-master.m3u8https://video.igem.org/videos/embed/1UXh29gkJK326ButhVmj4u2868022025-11-06T17:48:22.357ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/d2vinAZ9vGdMhj9VDVxmNNhttps://video.igem.org/lazy-static/thumbnails/5cc1bfda-15ad-4a05-9501-c42fa331cc26.jpgFrom Scientific Promise to Commercial Reality - The Hidden Pitfalls of Biotech StartupsThis session brings together academics, investors and founders to debate one of the sector’s toughest questions: Why do so many promising startups fail before reaching the market? Together, they will explore whether the core challenges lie in scientific reproducibility, development models, or the leap from laboratory innovation to commercial reality.https://static.igem.org/peertube/streaming-playlists/hls/616376d3-7230-4caa-bc55-2f0cbed1f5f2/6acac38d-4053-437a-80c7-764bb256894c-master.m3u8https://video.igem.org/videos/embed/d2vinAZ9vGdMhj9VDVxmNN3138002025-11-06T17:48:40.256ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/3phdNnV8ZBqdwyZTkLFWCNhttps://video.igem.org/lazy-static/thumbnails/a08d5619-189c-4bc1-b51b-c94001d12d83.jpgDEPU: Judging SessionWith the intensification of the energy crisis and the rising demand for environmental protection, biodiesel, as a clean energy source, has attracted much attention. Every year, our country generates hundreds of millions of tons of waste oils such as used cooking oil. If not handled properly, it may cause food safety and environmental risks. The traditional chemical method for producing biodiesel has problems such as high energy consumption and pollution; while the biological enzyme method, with advantages like environmental friendliness and mild conditions, has become a new direction, but it also has disadvantages such as low enzyme activity and high cost. This project aims to improve the reaction efficiency and stability of the biological enzyme method, converting waste oils into environmentally friendly biodiesel, contributing to the "dual carbon" goal, promoting the transformation of the energy structure and sustainable development.https://static.igem.org/peertube/streaming-playlists/hls/13726160-a7d0-4e29-a65d-e9527ccc24e6/69482882-84bb-4aa3-a512-e73d4513cad6-master.m3u8https://video.igem.org/videos/embed/3phdNnV8ZBqdwyZTkLFWCN1467022025-11-06T17:49:05.775ZYES2025 Judging SessionsNOhttps://video.igem.org/w/kcfSFhMCATVnkHycuXqHRqhttps://video.igem.org/lazy-static/thumbnails/3e0c951d-19ce-49a5-89b6-bd998142bbd9.jpgSPIKY'MUNE – An Edible Anti-Cholera Vaccine Implemented in CactusEach year, cholera causes thousands of deaths in developing countries where access to clean water remains insufficient. Available oral vaccines depend on a strict cold chain (2–8°C), a fragile system that collapses in areas exposed to extreme temperatures and power outages. Climate crisis worsens this situation: flooding and droughts promote Vibrio cholerae proliferation. Spiky'Mune provides an innovative alternative: transforming Opuntia ficus-indica (prickly pear cactus) into an edible vaccine producing CTxB protein, a non-toxic immunogenic fragment of cholera toxin. This approach relies on the cactus's exceptional properties: tolerance to arid climates, rapid growth, and massive biomass production (200 tons/ha/year). Its cells naturally protect proteins against gastric degradation. Our strategy includes CTxB expression validation in E. coli, transient transformation of Nicotiana benthamiana, then stable cactus callus transformation. By eliminating refrigeration requirements and promoting local production, Spiky'Mune addresses logistical, economic, and climate challenges while pioneering edible vaccines against enteric pathogens.https://static.igem.org/peertube/streaming-playlists/hls/9b6ffb76-e446-484b-bc9b-df424fed1d66/4c4b5105-700e-4dd6-8a22-b5d6af85741d-master.m3u8https://video.igem.org/videos/embed/kcfSFhMCATVnkHycuXqHRq596072025-11-06T17:49:32.916ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/vSfYBurPLv3pd6m1Cx5Zhuhttps://video.igem.org/lazy-static/thumbnails/d1ea30d8-14c4-4d98-afa0-da9137c0daf4.jpgSmart Biosensor for Early Detection and Control of Bacterial WiltBacterial wilt, caused by Ralstonia solanacearum, devastates over 400 crops including tomatoes and peppers, with field incidence rates reaching 50–80% in southern China. To address the challenge of hidden early infection, we engineered a smart biosensor that detects the pathogen’s AHL signaling molecules and produces a visible blue signal（indigo） for rapid field diagnosis. In addition, a companion strain synthesizes salicylic acid (SA), a natural plant immune signal, to enhance crop resistance. This low-cost, portable, and farmer-friendly system enables early detection and targeted intervention, providing an innovative solution for managing bacterial wilt and reducing agricultural losses.https://static.igem.org/peertube/streaming-playlists/hls/f1dd7060-471e-4a3d-844e-f176694c23d0/fa922f5a-cc21-4c25-b77d-01cf3b9cd47b-master.m3u8https://video.igem.org/videos/embed/vSfYBurPLv3pd6m1Cx5Zhu537032025-11-06T17:50:53.567ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/wGpUsZaBiKBQEfZUqh4AzEhttps://video.igem.org/lazy-static/thumbnails/a587034d-7a9b-4c65-acac-33145604c7bd.jpgKnotaut – Combating the Spread of Japanese Knotweed by Hijacking Its RNAi PathwayReynoutria japonica, commonly known as Japanese knotweed, is a fast growing and propagating neophyte present in most of Europe, North America and New Zealand that poses a severe risk to local ecosystems and communities. While this invasive plant species is generally susceptible to chemical-herbicidal-agents and physical control methods, both come with 3 key drawbacks. They are either unable to guarantee long term removal, damage surrounding ecosystems or are highly cost, time and/or labor intensive. Using a modified Escherichia coli strain and a specifically designed dsRNA expression system our goal was to produce dsRNA that is able to post-transcriptionally silence essential genes of R. japonica, ultimately leading to plant death. Additionally, dsRNA encapsulation into liposomes enhances its environmental stability as well as its uptake into and distribution in the plant. Our work had one clear objective: Create an environmentally friendly, species-specific herbicide formulation with dsRNA as its active ingredient - Knotaut!https://static.igem.org/peertube/streaming-playlists/hls/f896a46e-dc0a-4c0b-bac1-35eaf469fa60/1528047c-aec9-48fb-ad2c-7c808c23312f-master.m3u8https://video.igem.org/videos/embed/wGpUsZaBiKBQEfZUqh4AzE541042025-11-06T17:52:10.587ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kBX2mjXz97mtqCetvxGizPhttps://video.igem.org/lazy-static/thumbnails/2c10e3ab-55b3-4b7f-9b18-afd80616d454.jpgFHNW: Judging SessionThe FHNW team’s project focuses on developing a pathogen detection tool that harnesses the sequence-specific activity of the CRISPR/Cas12 enzyme system to target bacterial DNA. The assay is combined with DNA–gold nanoparticle (GNP) technology, providing a simple and rapid visual readout. Initial development and validation with laboratory strains (e.g., Pseudomonas putida) demonstrated sensitivity down to sub-nanomolar genome DNA concentrations, with distinct fluorescence and later with GNP-based signals. The system was then adapted for Arsenophonus sp., a pathogen affecting potatoes and other root vegetables. Tests under realistic conditions indicated the tool’s potential for in-field diagnostics, supporting faster decision-making and more timely interventions. Challenges remain, particularly in improving sensitivity and ensuring robust readouts in complex biological samples. Nonetheless, this proof of concept highlights a promising direction for accessible and field-deployable pathogen detection.https://static.igem.org/peertube/streaming-playlists/hls/9ee29367-303a-4994-8a6a-ca5c6451569d/856b421a-acb7-4312-915b-f4f71afa0027-master.m3u8https://video.igem.org/videos/embed/kBX2mjXz97mtqCetvxGizP1509042025-11-06T17:52:52.550ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pqwUxJa3tHKKu2XDbdWhhuhttps://video.igem.org/lazy-static/thumbnails/0550041f-5f0f-4a78-a0ff-68ebbcc90365.jpgSubCat-Peking: Judging SessionWith the continuous growth of the global population, food safety has gradually become a key concern worldwide. The development of natural, green, and non-toxic preservatives has emerged as a crucial trend in the food industry. Lysozyme and antimicrobial peptides (AMPs), as natural antibacterial components, have become research hotspots in food preservation due to their excellent antimicrobial properties and high safety profile. Lysozyme functions by catalyzing the hydrolysis of glycosidic bonds in bacterial cell walls, primarily targeting Gram-positive bacteria. Antimicrobial peptides, on the other hand, disrupt bacterial cell membrane structures, inhibiting pathogen growth with broad-spectrum antibacterial activity.This study aims to explore the combined preservative effects of lysozyme and antimicrobial peptides in food applications. The goal is to develop a green, safe, and natural food preservation technology.https://static.igem.org/peertube/streaming-playlists/hls/bdaf160d-d421-4ada-a31f-ef4ddeb2a52c/a55c62fd-238b-4ad6-8106-4a61257e8baa-master.m3u8https://video.igem.org/videos/embed/pqwUxJa3tHKKu2XDbdWhhu1596052025-11-06T17:53:10.886ZYES2025 Judging SessionsNOhttps://video.igem.org/w/kPmcnwkACud6gWp8uvBGi5https://video.igem.org/lazy-static/thumbnails/5f0dc989-0221-4d93-a1a1-0b51990cf084.jpgMCA: Judging SessionSialic acid is an important class of functional sugars. Its predominant form is N-acetylneuraminic acid (NeuAc), a key component of brain gangliosides and the monomeric unit of sialylated oligosaccharides in Human Milk Oligosaccharides (HMOs). In this project, we employ Escherichia coli to co-express the enzymes AGE (N-acetylglucosamine 2-epimerase) and NAL (N-acetylneuraminate lyase). To address issues of substrate-product flux balance and inter-enzyme mass transfer during the dual-enzyme catalytic process, we will assemble AGE and NAL into multi-enzyme complexes using either fusion protein technology or protein self-assembly technology. Leveraging the controllability (or tunability) of the self-assembly approach, we will optimize the expression ratio of the enzymes within the complexes to achieve highly efficient synthesis of sialic acid.https://static.igem.org/peertube/streaming-playlists/hls/a07a09b9-b34e-4eb8-a667-b53a3d4b8a86/b4cdfa5c-17e8-4c6a-8619-876bf8b2196e-master.m3u8https://video.igem.org/videos/embed/kPmcnwkACud6gWp8uvBGi51660062025-11-06T17:53:16.177ZYES2025 Judging SessionsNOhttps://video.igem.org/w/n7SGWDAccxf6r8acf4B7Aqhttps://video.igem.org/lazy-static/thumbnails/8e2387ad-a449-4a99-bc19-772ea404b0d1.jpgCRUSTA: Circular Reutilization of Untappable Seafood-Shell: Transformation Into Antimicrobial-Pre...In our CRUSTA project, we designed and developed an innovative COS-based bio-preservation technology using principles of synthetic biology. This technology provides a green and efficient alternative to traditional chemical preservatives in the food industry. In our project, we achieved chitosan degradation via a secretion system, enhancing the antibacterial performance of the degradation products by 7.96-fold compared to the wild-type. This project not only has the potential to propel technological innovation and catalyze industrial advancement in food preservation but also aims to introduce advanced concepts of synthetic biology and eco-friendly preservation. These initiatives are expected to improve preservation efficiency, elevate food safety standards, and enhance environmental sustainability, thus bolstering market competitiveness and fostering the sustainable growth of the green food industry and the circular economy.https://static.igem.org/peertube/streaming-playlists/hls/ab059f83-8c71-4c52-a2b6-388f468d684c/b04a1730-6186-4d96-8d22-18d1e7352aed-master.m3u8https://video.igem.org/videos/embed/n7SGWDAccxf6r8acf4B7Aq6330112025-11-06T17:53:21.548ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mcVxMBQ1HDK7BBbQfCmoKYhttps://video.igem.org/lazy-static/thumbnails/b29d562a-fd00-4ed0-8d53-85de70e4e0f5.jpgFHS-NB-ZJ-China: Judging SessionPeach gummosis seriously harms peach tree health, mainly triggered by fungal infections and environmental stress. It causes bark cracking and gummy exudation, weakening trees severely or even killing them. Current controls depend on chemicals and agricultural management, but problems like drug resistance and pollution remain, leaving a gap for efficient, eco-friendly solutions. ‘GumEraser+’ proposes to manipulate three key factors required for disease occurrence: 1) Apply specific RNA-based biopesticides to inhibit the activity of pathogens; 2) Promote the cultivation of disease-resistant host varieties; 3) Promote pruning of peach trees to improve orchard air circulation. The ‘+’ symbol here stands for three aspirations in addressing it: 1) Boost farmers’ income; 2) Enhance personal growth; 3) Promote knowledge transfer.https://static.igem.org/peertube/streaming-playlists/hls/a3a0f46f-5864-4192-ab34-ea3da4ef012e/3ecf669c-0fbf-4529-83ab-0bf13027972e-master.m3u8https://video.igem.org/videos/embed/mcVxMBQ1HDK7BBbQfCmoKY1404042025-11-06T17:53:40.263ZYES2025 Judging SessionsNOhttps://video.igem.org/w/h2spFBdMiNt2RfHZtk9eMQhttps://video.igem.org/lazy-static/thumbnails/51268b16-4e3c-4405-8861-50be181c407f.jpgREC-CHENNAI: Judging SessionThe SaltEnPep project leverages synthetic biology to address the global health challenge of excessive sodium consumption by developing saltiness-enhancing peptides that boost salt perception, enabling sodium reduction in food products without compromising taste. Peptides identified from literature were analyzed using molecular docking and dynamics to predict their interactions with human taste receptors. Selected peptides were cloned into a novel dual-intein chitin-binding domain (CBD) “sandwich” system within the pET-Blank(Kan) vector and expressed in E. coli. The system enabled efficient expression and purification via a thiol-mediated self-cleavage mechanism. Expression conditions were optimized using various IPTG concentrations, and peptide identity and purity were confirmed using Ultra-High-Performance Liquid Chromatography (UHPLC). Sensory evaluation with the ASTREE II electronic tongue showed distinct taste fingerprints and confirmed that peptides enhanced saltiness, especially when combined with NaCl. This work presents the first recombinant, scalable platform for producing salt-enhancing peptides, offering a sustainable solution for sodium reduction in foods. https://static.igem.org/peertube/streaming-playlists/hls/81c63cae-91bf-45ea-9369-656f92279d46/0cf0a761-bd0b-422a-8fee-db04cb51a0ad-master.m3u8https://video.igem.org/videos/embed/h2spFBdMiNt2RfHZtk9eMQ16640152025-11-06T17:54:09.733ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cndmaczLjxcqPqSBFGdr2Jhttps://video.igem.org/lazy-static/thumbnails/9e24ff3e-b972-43db-b37f-8d743d3c8c5d.jpgTec-Chihuahua: Judging SessionPlant diseases caused by fungi threaten global food security, causing severe yield losses and dependence on chemical fungicides that harm the environment and human health. Anthracnose, caused by Colletotrichum genus, exemplifies this problem. Despite advances, sustainable and precise disease management tools remain limited. Phasea addresses this challenge through a next-generation biofungicide that combines recombinant antifungal peptides with chitosan-based microparticles for controlled, prolonged release. Its formulation integrates the synergistic action of CaLTP1 + PDF1.2 and PvPGIP2, engineered for broad antifungal activity, while biodegradable chitosan ensures protection, stability, and gradual delivery in crops. To optimize formulation, we developed a mathematical model coupling peptide release kinetics with fungal inhibition dynamics, enabling data-driven design and predictive testing. Beyond the lab, Phasea integrates a sustainability-oriented business model targeting distributors and farmers. Together, Phasea unites synthetic biology, human practices, and entrepreneurship to foster safer and more resilient crop protection.https://static.igem.org/peertube/streaming-playlists/hls/5c0ac0fe-a475-4c95-969a-400682e00668/67687510-b940-4b38-b0eb-98bd4807ca2e-master.m3u8https://video.igem.org/videos/embed/cndmaczLjxcqPqSBFGdr2J1605092025-11-06T17:54:22.550ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sxcekMtxWRtbhKhAb2YcWBhttps://video.igem.org/lazy-static/thumbnails/c2854b83-c03d-42db-a131-16ccc4b76c09.jpgDe Novo Design, Screening and Application of D-Tagatose-3-Epimerase (DTE) for D-Allulose ProductionD-Allulose, a low-calorie sugar with multiple functions, is regarded as a revolutionary natural sweetener. The synthesis of D-allulose from fructose is catalyzed by D-tagatose-3-epimerase (DTE), while the low activity and poor stability of DTE have remained key bottlenecks for industrialization of D-allulose. Our study integrated artificial intelligence models such as LigandMPNN and AlphaFold3 for the de novo design of DTE. A novel RNA-mediated fluorescence system was developed for the high-throughput screening these AI-generated variants, resulting in a novel DTE enzyme with enhanced catalytic activity. The optimized DTE was subsequently applied to the production of D-allulose and other broader societal applications. This study establishes a applicable platform based on “AI Design-Efficient Screening-Application Validation” for enzyme development. It provides a breakthrough enzyme for D-allulose production, benefiting its industrialization and broad social applications in the food and pharmaceutical. It also offers a safe sugar-alternative solution to address obesity and diabetes etc.https://static.igem.org/peertube/streaming-playlists/hls/d6e89530-bb79-4781-992c-0a36ee44327b/cad9be0a-7b99-4c17-9952-590760804a83-master.m3u8https://video.igem.org/videos/embed/sxcekMtxWRtbhKhAb2YcWB462012025-11-06T17:54:30.152ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/6wW6B8Ssi9ZT3uThyj4X5Yhttps://video.igem.org/lazy-static/thumbnails/8a8d0eb9-e0bf-4209-a7d6-8782c4f3e575.jpgUMass Amherst: Judging SessionCadmium (Cd) is a toxic heavy metal released through industrial processes that persists in soil and water, posing serious environmental and neurotoxic risks. Chronic exposure is linked to oxidative stress, mitochondrial dysfunction, and neurodegenerative diseases such as Alzheimer’s and Parkinson’s. Conventional Cd remediation methods are costly and unsustainable, creating demand for biological alternatives. This project explores Pseudomonas putida KT2440 as a chassis for Cd bioremediation. We engineered a Cd biosensor using the CadC repressor protein, which activates gene expression upon Cd binding. Preliminary assays in E. coli (NEB 10β) confirmed CadC responsiveness, though the ON/OFF dynamic range was limited. Promoter characterization (BBa_J23100–BBa_J23119) in P. putida showed most variants functional except BBa_J23109. These results demonstrate the feasibility of developing a P. putida-based biosensing and bioremediation system for Cd, supporting the creation of sustainable, field-deployable microbial solutions for heavy metal pollution.https://static.igem.org/peertube/streaming-playlists/hls/2ccf583a-b7cc-4017-8b7b-0da74303c0f4/95d32cd8-9946-463f-a495-da2c9893344c-master.m3u8https://video.igem.org/videos/embed/6wW6B8Ssi9ZT3uThyj4X5Y1654002025-11-06T17:54:39.459ZYES2025 Judging SessionsNOhttps://video.igem.org/w/aR1AyNzBNpJjaubQaXUPdShttps://video.igem.org/lazy-static/thumbnails/557957df-8c56-4fc4-bd8e-b7be2239f889.jpgShanghai-HS: Judging SessionDairy products are essential for human health. Our project utilizes enzyme engineering and synthetic biology to express two recombinant enzymes: transgalactosidase and glucose oxidase. Transgalactosidase catalyzes the conversion of lactose into galactooligosaccharides (GOS) and glucose, whereas glucose oxidase converts glucose into gluconic acid.  This process not only alleviates lactose intolerance symptoms but also reduces sugar content and enriches prebiotics in dairy products. Ultimately, it achieves lower carbohydrate intake and higher dietary fiber content, providing a healthier dairy option for consumers.https://static.igem.org/peertube/streaming-playlists/hls/4fba0f58-5e15-4ebb-a446-6d0cbb4990b6/7ca3b515-354a-4455-b5f0-0a51b1747cb4-master.m3u8https://video.igem.org/videos/embed/aR1AyNzBNpJjaubQaXUPdS1726042025-11-06T17:55:11.484ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fTLFV6VrZLeph4Lcy1ZxeEhttps://video.igem.org/lazy-static/thumbnails/27edcac0-677d-4397-9cfb-74e8d8f3e827.jpgA Dry Labers' Way: Full of Twists and TurnsThis is a presentation mainly about softwares developed by our Dry labers(mainly about a lychee recognition system and a MCP tool). We will introduce some basic mechanisms, the application scenarios and the reason why we want to do these. Besides, we would also present the difficulty we have met and summarize some typical falses that the iGEM team may occur. We have some astonishing dataset which we regard worth sharing to others. Yet we also encountered a bunch of obstacle, which we might not be able to overcome. In general, we want to provide a fingerpost for the future Dry Labers.https://static.igem.org/peertube/streaming-playlists/hls/789a69e1-1b69-495f-86ea-d17a832e5b1c/185a4904-ed06-4fa6-a778-c3e07d97d391-master.m3u8https://video.igem.org/videos/embed/fTLFV6VrZLeph4Lcy1ZxeE828032025-11-06T17:55:40.306ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4h4yQuLyBvWtKbn1YtPjeThttps://video.igem.org/lazy-static/thumbnails/f6f51896-0dd2-483d-9b5a-829e5174ef1b.jpgUCAS-China: Judging SessionEarly detection of plant pathogens is essential for reducing crop losses, yet most diagnostic systems remain laboratory-bound. We developed PROTATO: Proteolysis-based Detection for Pseudomonas syringae pv. tomato Affected Tomato, a cell-free and protein logic–based biosensing platform enabling on-site pathogen detection. PROTATO integrates a coiled-coil–mediated chain exchange reaction as its molecular logic core and a dual-input AND gate that responds specifically to the pathogen effector AvrRpt2 protease and the phytotoxin coronatine (COR), reconstituting split luciferase, GFP, or trehalase reporters. A positive-feedback loop amplifies protease activity, improving detection sensitivity and signal strength. To enable field deployment, we engineered the PROTATO KIT, a 3D-printed electrochemical device that converts glucose signals into electronic readouts via glucose oxidase–modified electrodes and microcontrollers. Portable (Air) and scalable (Pro) versions support diverse agricultural applications. Our project establishes a generalizable framework for cell-free protein logic, advancing low-cost biosensing for crop protection and beyond.https://static.igem.org/peertube/streaming-playlists/hls/1a898396-4aa4-475b-99e8-6a9ee9c40935/6412ef8f-6a00-47a7-9a7c-c586b03fe912-master.m3u8https://video.igem.org/videos/embed/4h4yQuLyBvWtKbn1YtPjeT1627042025-11-06T17:56:18.623ZYES2025 Judging SessionsNOhttps://video.igem.org/w/qfVLiqcA3Hp3cCgCBK89FGhttps://video.igem.org/lazy-static/thumbnails/e5b9c059-7d12-419a-a6fc-b34009b5b788.jpgPlants vs. PET: Combatting Microplastic Pollution with Plant-Based PETaseThailand ranked sixth in the world for mismanaged plastic waste, sending over a million tonnes into the oceans each year (Labcom et al., 2024). Microplastics are now found throughout the country’s ecosystems—from marine animals to water, air, and farmland—threatening wildlife, food safety, and human health (Chanpiwat, 2021). The most common culprit is polyethylene terephthalate (PET), making up 37% of poorly managed waste. In 2016, scientists discovered PETase, an enzyme from Ideonella sakaiensis that can break down PET. However, such microbial hosts are inefficient, unsafe, and unsustainable. Therefore, the Thailand‑RIS iGEM 2025 team explored a different approach—producing PETase in plants—of which we present the first successful demonstration. Although stable transformation is still underway, we achieved transient expression of PETase fused with an alpha‑amylase 3S signal peptide in Nicotiana benthamiana, resulting in extracellular secretion. This proof of concept lays the groundwork for scalable, sustainable plant-based strategies against forever-increasing plastic pollution.https://static.igem.org/peertube/streaming-playlists/hls/c470dfad-4514-446e-ad04-0ee351b0a046/64f9c673-4efb-47d1-af01-566bf58298c0-master.m3u8https://video.igem.org/videos/embed/qfVLiqcA3Hp3cCgCBK89FG549022025-11-06T17:56:52.628ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/hHkzagTixfrAcBxEMB5Xpwhttps://video.igem.org/lazy-static/thumbnails/7a5a4e67-598d-4b16-a29a-b42ee14c090a.jpgSMS-Shenzhen: Judging SessionPlastic cling films are widely used in food preservation but pose long-term environmental risks due to poor degradability, while microbial spoilage continues to cause significant food waste. To address these challenges, SMS-Shenzhen is designing a biodegradable and antimicrobial cling film using synthetic biology. We introduced the pls gene from Streptomyces albulus into Bacillus subtilis to enable ε-polylysine (PLL) production and introduced PPK2 and lysC311 to enhance the productivity. A kill switch is constructed by knocking out the alrA gene, rendering the strain auxotrophic and limiting its survival to controlled conditions. In parallel, we are developing a bilayer film by combining purified PLL with chitosan and sodium alginate-based materials. Our goal is to create a cling film that is both antimicrobial and biodegradable, offering a safer and more sustainable alternative to traditional plastic packaging.https://static.igem.org/peertube/streaming-playlists/hls/8757c64e-4c95-4ae8-aa3a-c6ffb84d1b00/8d9d9807-113d-4826-8fa0-61399db8fd85-master.m3u8https://video.igem.org/videos/embed/hHkzagTixfrAcBxEMB5Xpw1559062025-11-06T17:57:28.530ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nF6Qa7kAjKBEL4dixfTZMFhttps://video.igem.org/lazy-static/thumbnails/b97850b5-fe49-4723-9fbc-6b05ddfe3542.jpgNYC-Empire-State: Judging SessionSoilless agriculture has been an agricultural market on the rise, which yields up to 50% higher efficiency than soil-based cultivation. VERDE is an antifungal detector that works against fusarium, a common fungus that causes fungal root rot, which poses a significant threat to soilless agriculture. To enhance the specificity of detection and mitigate the scale constraints, VERDE engineers plasmid of E.coli detects low acidity below 4.5 and indicates the infection of Fusarium. The acid-inducible E. coli asr promoter drives co-expression of genes glutaminase (glsA), β-1-3 glucanase (BGL2), and RsAFP2. These variants in the assembly allows the biosensor to not only detect the presence of Fusarium, but also facilitates its death by producing proteins that disrupts the diffusion of Fusarium: BGL2 and RsAFP2. https://static.igem.org/peertube/streaming-playlists/hls/af85830e-3f6f-4cc6-afaa-0d72bcaae5d5/3ede8e18-2362-45c9-8eb7-a0d518930acf-master.m3u8https://video.igem.org/videos/embed/nF6Qa7kAjKBEL4dixfTZMF1172042025-11-06T17:57:31.349ZYES2025 Judging SessionsNOhttps://video.igem.org/w/g4nLA4mBn7wRUTADC6kGfqhttps://video.igem.org/lazy-static/thumbnails/ba5ed58c-c64e-46a1-a72c-6c0a6b91b926.jpgSquirrel-SouthEast: Judging SessionThis project addresses the high spoilage rate of strawberries during post-harvest transportation, where current preservation methods are costly or have limited effectiveness, by proposing an integrated “prevention + real-time monitoring” solution. After harvest, strawberries are sprayed with chitinase and endo-β-1,3-glucanase to degrade fungal cell walls and inhibit infection. During transportation, a VOCs-based whole-cell biosensor constructed from Escherichia coli BL21 (BE3) detects spoilage-related volatile compounds and triggers a fluorescent warning, enabling logistics operators to adjust conditions or remove damaged fruit in time to prevent further spread. This approach leaves no chemical residues, has low production costs, can be integrated with IoT systems, and is suitable for large-scale application—significantly reducing spoilage rates and transport losses, improving freshness, and enhancing both economic returns and food safety.https://static.igem.org/peertube/streaming-playlists/hls/79f1ba07-6890-4213-98ae-60114fcfe8ec/c238303c-978f-4da5-ad2c-b9d65b6d5a20-master.m3u8https://video.igem.org/videos/embed/g4nLA4mBn7wRUTADC6kGfq1649052025-11-06T17:58:02.553ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uonB5pvSFxnoVF94osLnjHhttps://video.igem.org/lazy-static/thumbnails/7630a216-5362-4335-a52f-43a64d0c7457.jpgUiOslo-Norway: Judging SessionOur aim is to develop a wearable biosensor that continuously monitors lactate concentration in the interstitial fluid. The current method to measure lactate levels widely used by professional athletes requires blood sampling through invasive needles and the use of disposable strips, disrupting training flow. Building on the success of continuous glucose monitors, our device will embed lactate‐oxidizing enzymes (e.g., lactate dehydrogenase) within a microneedle array to catalyze lactate in dermal interstitial fluid into pyruvate and hydrogen peroxide. An integrated electrode will then oxidize the generated hydrogen peroxide, producing electrons whose current correlates directly with lactate concentration. By tracking these electrical signals in real time, athletes can optimize training and recovery on the run while reducing recurring costs and biological waste. During our project, we have expressed and immobilized the enzyme and verified them through electrochemical detection techniques to present a proof on concept.https://static.igem.org/peertube/streaming-playlists/hls/e5df8f50-ad7a-4c9b-8fa8-027d3a7c8631/528e351a-44d7-4602-8b8b-afa087d438f4-master.m3u8https://video.igem.org/videos/embed/uonB5pvSFxnoVF94osLnjH1670042025-11-06T17:58:05.848ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3khBfhrm5ag6Ru2KsPgYEKhttps://video.igem.org/lazy-static/thumbnails/30225eae-0927-4853-91f7-601bdc09e643.jpgiGEM Registry 2.0Join us for an interactive 30-minute session introducing the beta version of the new iGEM Registry: rebuilt from the ground up on a modern, scalable foundation. We’ll share the vision behind its evolution, highlight improvements already in place, and outline how this platform will continue to evolve with the community. We want to hear from students, instructors, researchers, and industry professionals about how you use the Registry today, what challenges you encounter, and what new features would unlock better part documentation, discovery, interoperability, and reuse. Come help us shape: smarter search and navigation, improved documentation standards, better part quality signals, integrations with the tools you use, and the community pathways that will guide ongoing development. Your input will directly influence future updates. All experience levels welcome, bring your ideas!https://static.igem.org/peertube/streaming-playlists/hls/12e3a4d0-6ad8-49a3-8d70-d67b8e33f26f/f180433d-77cd-44c9-a343-741416f794e4-master.m3u8https://video.igem.org/videos/embed/3khBfhrm5ag6Ru2KsPgYEK17240532025-11-06T17:58:18.789ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/vpWPg7YrtNWFaUDjZhLShUhttps://video.igem.org/lazy-static/thumbnails/aa6ae5de-31cb-4dd9-a4d7-9c6001f4bab9.jpgCell-Free Systems for Rapid InnovationCell-free systems are transforming the landscape of synthetic biology through their inherent safety, simplicity, and portability. These systems enable rapid and efficient prototyping of genetic circuits, accelerating innovation and reducing barriers to experimentation. This session brings together leaders from academia and industry to explore how cell-free technologies are being applied across research and commercial settings, from advancing iGEM projects to developing cutting-edge biotechnological solutions. Join us to learn how these versatile platforms are shaping the future of synthetic biology and expanding its real-world impact.https://static.igem.org/peertube/streaming-playlists/hls/ee30e8a0-3911-42b8-bd6d-2f119c0d145c/39413e37-ccb0-45fe-b01a-8392ccc9298b-master.m3u8https://video.igem.org/videos/embed/vpWPg7YrtNWFaUDjZhLShU19430442025-11-06T17:58:20.301ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/o9x7Wp2GFtZKerhog1nraUhttps://video.igem.org/lazy-static/thumbnails/65cf8132-d2bc-42de-ba18-b700fdb2c261.jpgPepcitrus: Peptides in Defense of CitrusOrange production faces severe losses caused by Greening, Green Mold and Sour Rot, threatening food security and vitamin C availability. Especially in Brazil, leader of orange juice and fruit production, this directly affects livelihoods. To tackle this challenge, we focused on CTX, an antimicrobial peptide from Brazilian Cerrado biodiversity, and engineered three different hosts: E. coli, S. cerevisiae, and A. oryzae to optimize its production through coupling-strategies. To guide CTX application, we developed a mathematical model simulating Greening progression in the phloem and designed Sniffer, a hardware device combining an electronic nose and machine learning for rapid field diagnosis. Performing economic analysis to assess industrial scalability of approaches we demonstrated cost-effectiveness through solid-state fermentation using orange peels residues. Thus, Pepcitrus bridges laboratory innovation and real-world application, incorporating different perspectives from farmers, industry, and society to save oranges.https://static.igem.org/peertube/streaming-playlists/hls/b35a2dc7-8cf9-4f6a-a783-d7200c07d4ea/5498b9f7-6190-47a3-8260-ff3d1d34d5f4-master.m3u8https://video.igem.org/videos/embed/o9x7Wp2GFtZKerhog1nraU570062025-11-06T17:58:24.013ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/p6MriYmfSvz4W6Ks1xhB4bhttps://video.igem.org/lazy-static/thumbnails/33be6994-f352-4ca9-89a3-bd6b862a1a9b.jpgIIT-D: Judging SessionDigestive health disorders affect millions worldwide, posing a major public health challenge. While digestive enzyme supplements offer temporary relief, they are often unsustainable, unscalable, and may trigger allergenicity. To address this, we developed EnzyCaps—a biomanufacturing platform that uses bacterial microcompartments (BMCs) within recombinant E. coli to produce and encapsulate digestive enzymes. Our system integrates three key features: a tightly inducible promoter for precise gene regulation, BMC-based compartmentalization, and peptide tags for targeted enzyme encapsulation. This living micro-factory enables modular, tunable, and sustainable enzyme production, overcoming limitations of traditional plant- or animal-based sources. EnzyCaps represents a step forward in sustainable synthetic biology, combining stability, efficiency, and scalability for improved digestive wellness and energy enhancement.https://static.igem.org/peertube/streaming-playlists/hls/bb10e8c0-cc11-46a9-b2a7-82c271766f14/3c8dfdd0-7339-4bfc-9776-0186c92a5d87-master.m3u8https://video.igem.org/videos/embed/p6MriYmfSvz4W6Ks1xhB4b1515032025-11-06T17:59:07.188ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cZje5WL83mEfANAtYuqs9phttps://video.igem.org/lazy-static/thumbnails/6056b43b-98ba-4087-bea9-12ad6f41958e.jpgRPTU-Kaiserslautern: Judging SessionSUSPACT advances sustainable antibody production by engineering Chlamydomonas reinhardtii to express a humanized Cetuximab single-chain variable fragment (HumcetFv). The fragment retains high EGFR-binding specificity while reducing immunogenicity, offering a cost-efficient and eco-friendly alternative to mammalian expression systems. To achieve this, the team created organism-specific DNA parts optimized for Chlamydomonas codon usage, secretion, and post-translational modifications, establishing a foundation for future antibody and protein production on this platform. Valuable insight from bioreactor experiments opened up possibilities for industrial scale production volumes. Beyond research, the team actively engaged in education and outreach through workshops, school visits, public events, collaborations, and media contributions, while also developing creative learning tools like a scientific card game. Together, these efforts highlight both the technical innovation and societal impact of the project, positioning Chlamydomonas as a versatile platform for sustainable biomanufacturing.https://static.igem.org/peertube/streaming-playlists/hls/611526ee-b167-45da-a1b7-7fdef1086bcf/8a2f4bf0-fd36-472c-b5a2-565b96499726-master.m3u8https://video.igem.org/videos/embed/cZje5WL83mEfANAtYuqs9p1555022025-11-06T17:59:11.989ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5WF8wU1Fyqzrou3XHjnLhJhttps://video.igem.org/lazy-static/thumbnails/bebdcf95-d604-49c0-94af-b6681674d2f5.jpgUnlocking Hidden Nutrition in Seeds with Machine Learning and Promoter EngineeringImprovement of crop nutrition is in the spotlight of plant breeding and engineering. A strategy combining synthetic biology and machine learning to explore novel genome editing targets for vitamin enhancement was proposed. A machine learning model using Recurrent Neural Network (RNN) to predict gene expression pattern by their promoter sequence will be first established. With this trained model, we will be able to simulate in silico mutations to enhance key gene expression for multiple vitamin biosynthesis in seeds. To rapidly validate those gene expressions in seeds as a proof-of-concept, the wild type and mutated promoter with a pigment-accumulating RUBY reporter will be tested in Arabidopsis, a model organism with short life cycle.https://static.igem.org/peertube/streaming-playlists/hls/2806d536-6d01-4765-96d4-081da0809dc2/34f07ac0-c309-4e1b-ad74-71faf80df366-master.m3u8https://video.igem.org/videos/embed/5WF8wU1Fyqzrou3XHjnLhJ514032025-11-06T17:59:29.444ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qMj6UNTjJ4Bach8hK32Jwjhttps://video.igem.org/lazy-static/thumbnails/7deb69b5-b993-426d-9194-7a294fc22ae0.jpgMcMasterU: Judging SessionOur project proposes a novel system that tackles the climate crisis by repurposing carbon dioxide (CO₂) emissions from manufacturing industries, transforming this waste into a valuable resource. Specifically, we utilize CO₂ to fuel algae bioreactors that produce high-value pharmaceutical compounds. By recycling industrial CO₂ and converting it into ergosterols, a precursor of steroid hormones, we create a circular economy model that emphasizes sustainability, innovation, and improved efficiency in pharmaceutical production.https://static.igem.org/peertube/streaming-playlists/hls/c8aef403-ef6d-4798-96e7-381a17d98c6e/e674a92d-0ecc-47d2-aff9-cab66c8f83d6-master.m3u8https://video.igem.org/videos/embed/qMj6UNTjJ4Bach8hK32Jwj14440122025-11-06T17:59:34.517ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4kJWeBqwVv1ai9cSgTGy3Phttps://video.igem.org/lazy-static/thumbnails/a4f4cf6f-c5e8-40d3-a6e6-32bd4ae79793.jpgOkinawa no Daigaku: Judging SessionMangoes are both culturally and economically vital for Okinawa, small islands in southern Japan. However, Okinawan mango production is now under serious threat from yellow tea thrips. To address this challenge, our team developed MAMORI: Modular Agricultural Monitoring for On-site Rapid Pest Identification. MAMORI enables strain-level discrimination of thrips—essential for selecting effective pesticides—as well as early, unmanned detection, outbreak prediction, and coordinated island-wide strategy formulation. Our system combines LAMP-based molecular detection with a paper-based microfluidic device. We also designed automated hardware to trap insects, extract DNA, analyze results, transmit data, and replace test papers without human intervention. Furthermore, we built a predictive model that integrates outbreak data across Okinawa to forecast thrips population dynamics. With MAMORI, we aim to protect Okinawan mangoes, support sustainable agriculture on small islands, and provide a model for scalable, community-driven pest management.https://static.igem.org/peertube/streaming-playlists/hls/1b0d01dd-fba3-45e0-b341-d47ac39f7bf3/3b54cd21-cbdd-492a-949d-59d7a4dc974d-master.m3u8https://video.igem.org/videos/embed/4kJWeBqwVv1ai9cSgTGy3P1564042025-11-06T17:59:57.789ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fk8Neyw1DKvnkKnrNuFAHPhttps://video.igem.org/lazy-static/thumbnails/6ca84194-054b-408c-a30f-7e8e124debaf.jpgHKGTC: Judging SessionIdentification of microplastics in complex environmental matrices remains a challenge. In this study, we engineered a whole-cell biosensor based on the quorum sensing regulatory circuit LasI-LasR in P. aeruginosa with a reporting module that expressed a LacZ gene. The results demonstrated that our engineered biosensor pSB1C3-LasR-pLasR3-LacZ was highly sensitive to the AHLs with EC50 values as low as 1.0 X 10-8M with N-3-oxo-decanoyl L-homoserine lactone (C10-HSL) and 3.2 X 10-8M with N-3-oxo-dodecanoyl L-homoserine lactone (3OC12-HSL) upon 2 h incubation. The values lie within the average range of AHL concentrations in water environments. Besides, the engineered biosensor is found to be functional in the real tap water environment and seawater without significant matrix effect. In addition, we engineered negative control biosensors by removing the sensing module to reduce background expression of β-galactosidase activity. Moreover, we developed protocol of quantitative X-gal assay which can be used as a testing kit. https://static.igem.org/peertube/streaming-playlists/hls/740be0c6-3ad0-44b3-b86b-7b38e7b31299/f9bdc3f3-379a-4881-b42b-7cbbe927b98c-master.m3u8https://video.igem.org/videos/embed/fk8Neyw1DKvnkKnrNuFAHP1121062025-11-06T18:00:34.151ZYES2025 Judging SessionsNOhttps://video.igem.org/w/u63HzprLRPdvH3dhWTKsVRhttps://video.igem.org/lazy-static/thumbnails/9ae8303f-b621-4dea-937a-9962c28f2404.jpgAptAbt: Aptamer-Based Antibiotic Biosensor for Ensuring Food SafetyOur project presents a fluorescent aptamer-based sensor for rapid, sensitive, and specific detection of antibiotics, integrating a target recognition module with a versatile signal amplification module. The recognition core utilizes a ligand-binding oligo (LBO) that undergoes a specific structural change upon antibiotic binding, releasing a short release oligo (SRO). For signal amplification, we design two distinct strategies to suit various application needs: a T7 in vitro transcription system, where the SRO triggers the production of a fluorescent RNA aptamer, and a CRISPR-Cas12a system, where the SRO activates Cas12a's trans-cleavage activity to degrade a fluorescent reporter. This dual-approach system enables highly amplified and quantifiable detection of antibiotic residues.https://static.igem.org/peertube/streaming-playlists/hls/e374468f-eaa4-423d-b036-282836a1e283/7a984257-aa8a-42ff-a4cd-137aef803f97-master.m3u8https://video.igem.org/videos/embed/u63HzprLRPdvH3dhWTKsVR585012025-11-06T18:00:44.380ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qqJqWUbzfyj29cJPjdELHrhttps://video.igem.org/lazy-static/thumbnails/7fa61650-ce95-4612-a5e5-da1c1ab86f9a.jpgOTIA-Hangzhou: Judging SessionConfronted with the increasingly severe issues of obesity and metabolic diseases in China, as well as the limitations of traditional artificial/natural sweeteners in terms of safety, tolerance, and functionality, this project aims to employ synthetic biology techniques to construct highly efficient E. coli engineering strains for the expression of α-agarase (AgaE) and endo-inulinase (Inulinase), respectively. By optimizing expression conditions and fermentation processes, the soluble expression of these two enzymes will be achieved efficiently. Subsequently, a green biomanufacturing process will be established for the large-scale production of novel functional sweeteners—agaro-oligosaccharides (AOS) and fructo-oligosaccharides (FOS)—which exhibit both a low glycemic index (GI) and significant prebiotic properties. This technological approach is designed to fundamentally address the health controversies and application challenges associated with existing sweetener products, offering the food industry a safer, more efficient, and cost-effective healthy sweetening solution.https://static.igem.org/peertube/streaming-playlists/hls/c5cf53a9-8c9a-44a3-b45c-688faaf77d43/710e26f8-f1b1-431e-b3c3-a1602aa9b958-master.m3u8https://video.igem.org/videos/embed/qqJqWUbzfyj29cJPjdELHr1849022025-11-06T18:01:20.021ZYES2025 Judging SessionsNOhttps://video.igem.org/w/j8bt8TtiZTu2q3nYGQ5Fukhttps://video.igem.org/lazy-static/thumbnails/e9ddecba-18bf-4a29-9d27-8c8287ef4110.jpgSnaPFASPerfluoroalkyl and Polyfluoroalkyl Substances (PFAS) contamination is a global concern due to their persistence in water, widespread presence in daily life, and long-term health risks. Among them, perfluorooctanoic acid (PFOA) is the most prevalent and hazardous pollutant. By developing an integrated PFOA & fluoride ions biosensor, optimizing PFOA-degrading enzymes, and designing a systematic hardware platform, we aim to establish a PFOA governance system that integrates detection, biodegradation, and safe processing, providing a practical solution to mitigate environmental and health impacts.https://static.igem.org/peertube/streaming-playlists/hls/92c5273f-e878-4aa1-8d9a-bf9c91bd6407/d37ccfcb-d341-464a-8115-e775c7bce6cf-master.m3u8https://video.igem.org/videos/embed/j8bt8TtiZTu2q3nYGQ5Fuk665052025-11-06T18:02:03.370ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/rDAFRL5j9iVo96rbt98HP1https://video.igem.org/lazy-static/thumbnails/e5a3a263-eff1-41bc-b9bf-b86f7378cecc.jpgFeliSilenceCat allergies affect a substantial population globally and are mainly caused by a few feline proteins (e.g., Fel d 1, Fel d 2, Fel d 4, Fel d 7). We developed FeliSilence, an RNA interference (RNAi) approach that silences allergen transcripts to reduce allergy at the source. To quickly and safely test RNAi efficiency, we created an accessible yeast shRNA reporter platform through simple fluorescence readouts—ideal for student teams. Candidate shRNAs were filtered to minimize off-target effects, and in the yeast assay, twelve of fifteen shRNAs demonstrated active knockdown, presenting candidates for further implementation. Human Practices guided our project priority of reversible RNAi over gene editing, and we assessed delivery feasibility through modeling of siRNA activity and lipid nanoparticle (LNP) targeting. To tackle the challenge uniting private sectors, our entrepreneurship plan outlines a feasible pathway, emphasizing safety, regulatory alignment, and clear advantages over symptom-based allergy treatments.https://static.igem.org/peertube/streaming-playlists/hls/cfb45cdc-8330-46a3-a383-f51d30ef16e2/2fbc646e-80f7-44c3-9faa-3fc04124e6c5-master.m3u8https://video.igem.org/videos/embed/rDAFRL5j9iVo96rbt98HP1710012025-11-06T18:03:06.181ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/k2q55fdFY91ix1AfR4fRqchttps://video.igem.org/lazy-static/thumbnails/bc90a55a-7af4-4fd1-95f7-a4b4f8907ac7.jpgUprize-I: Judging SessionSoybean root rot, a soil-borne disease primarily caused by Fusarium spp., poses a severe threat to China’s soybean industry—with annual yield losses exceeding 50,000 tons. Conventional controls are inadequate: agricultural measures are slow-acting, chemical pesticides carry risks of residues and pathogen resistance, and biocontrol exhibits weak efficacy. To address this gap, our approach employs two engineered strains: the chitinase-expressing strain degrades existing chitin, destroying mature pathogens; the β-amyrin-synthesizing strain blocks chitin synthesis by inhibiting chitin synthase, suppressing pathogen proliferation. Our team achieved key results: establishing an in-silico workflow to screen 2000 secretory peptides; verifying the chitin-degrading ability of chitinases; constructing and optimizing β-amyrin-producing strains; developing a biosafety screening tool and a measurement tool based on safer antifungal indicator strains; confirming antifungal effects of chitinases and β-amyrin. In the future, we will promote the large-scale application of this synthetic biology-driven strategy, further supporting long-term agricultural health and food security.https://static.igem.org/peertube/streaming-playlists/hls/9a10364d-2314-4823-98b3-f07d0b8028df/613e25aa-c60a-4978-b3b8-b60d1418703c-master.m3u8https://video.igem.org/videos/embed/k2q55fdFY91ix1AfR4fRqc16880312025-11-06T18:03:43.977ZYES2025 Judging SessionsNOhttps://video.igem.org/w/dTjVuC3x8i981H998NLJeXhttps://video.igem.org/lazy-static/thumbnails/127256a5-e071-41b4-8648-ae71763c105d.jpgETSU: Judging SessionMicronutrient deficiencies (hidden hunger) affects over two billion people globally. This happens from a lack of vitamins and micronutrients, even in diets sufficient in calories. Seeds provide energy, but are often poor in essential vitamins. Plants can synthesize certain vitamins, but some of the key genes for the biosynthesis are not active in seeds. We aim to unlock the natural potential of seeds by engineering the promoters of key genes for vitamin biosynthesis in soybeans. To predict the gene expression patterns in seeds, we trained a machine learning model using seed and non-seed specific gene promoters. This simulates mutations in native gene promoters and predicts whether a mutation can increase the gene expression in seeds. To test this, we introduced a RUBY reporter system. When a mutated promoter activates the target gene, it produces red pigment in the seed. We will test this in Arabidopsis, and then move onto soybeans. https://static.igem.org/peertube/streaming-playlists/hls/685841e9-b52c-4fb4-b167-b50dd1b9f531/6b3ddbf6-61a7-446f-a9ed-b0fac7e6777b-master.m3u8https://video.igem.org/videos/embed/dTjVuC3x8i981H998NLJeX1345002025-11-06T18:03:50.273ZYES2025 Judging SessionsNOhttps://video.igem.org/w/moAp4g6BxuwEG8X8PNc1sAhttps://video.igem.org/lazy-static/thumbnails/2b1b03fc-7f4e-4783-a544-bfec524134bc.jpgMIT-MAHE: Judging SessionPepper foot rot is a devastating disease that affects black pepper (P. nigrum) vines. Caused by the oomycete Phytophthora capsici, the infection leads to extensive yield loss and mortality in Karnataka and Kerala. Globally, plantations in Vietnam and Indonesia also suffer a similar fate. Chemical fungicides and current biocontrol measures are ineffective and unsustainable, driving the need for an innovative solution. MIT-MAHE has developed a targeted, preventative solution that curbs foot rot. PhytClub implements small interfering RNA (siRNA) that are specifically designed to silence the bZIP transcription factor in P. capsici, through the RNA interference mechanism. Chitosan nanoparticles encapsulate the siRNA to confer stability and aid their uptake into the pathogen. Furthermore, the team has automated the siRNA design process and combined it with a model that predicts the stability of an siRNA-nanoparticle complex, providing a foundational software tool that helps future researchers seamlessly build gene silencing systems.https://static.igem.org/peertube/streaming-playlists/hls/a51e5598-f57e-4882-948f-20938f0d433e/ffac9fb6-2a43-49a4-b525-c05f720e5324-master.m3u8https://video.igem.org/videos/embed/moAp4g6BxuwEG8X8PNc1sA14040312025-11-06T18:03:57.526ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1pnY3EiNjRRULf4rYew2qfhttps://video.igem.org/lazy-static/thumbnails/16c232be-943e-4643-9cb1-2834ac3642f8.jpgHUBU-China: Judging Session By integrating enzyme engineering with synthetic biology, we have developed a highly efficient and specific biodegradation platform with exceptional potential. Starting from ADH3—the most active OTA hydrolase reported to date—we rationally designed the S88E mutant, whose additional hydrogen-bond network increases catalytic efficiency (kcat/KM) by 3.7-fold. To surmount the remaining catalytic bottleneck, we mined the sequence space of ADH3 and identified the homologous enzyme LIADH (73 % identity) that possesses twice the native activity of ADH3. Structure-guided redesign of LIADH yielded the I326A variant; removal of the γ-branched side chain relieves steric congestion at the acyl-enzyme intermediate, affording a further 75 % improvement in activity. Collectively, we obtained two high-performance biocatalysts—ADH3-S88E and LIADH-I326A—and accomplished the first comprehensive structural, kinetic, and mechanistic characterization of any OTA hydrolase. https://static.igem.org/peertube/streaming-playlists/hls/0343a4d8-7d0a-4f81-bb0b-933fd2c2b1e2/99725c0c-c0d3-4724-a061-3fe1a2f933ef-master.m3u8https://video.igem.org/videos/embed/1pnY3EiNjRRULf4rYew2qf1439072025-11-06T18:04:04.264ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vfPDiUt6s4EDjjgnL9tzK8https://video.igem.org/lazy-static/thumbnails/eb324ec9-f900-4391-8f35-6169b08fac15.jpgUCSC: Judging SessionIn order to address the global challenge of mycotoxin contamination in food and drink products, we aim to develop a detoxification system adaptable to diverse agricultural communities and food systems worldwide. Our methods focus on aflatoxin B1, the most carcinogenic mycotoxin and a major burden to resource-limited communities. Once bound, toxins can be removed through simple, inexpensive, and widely available cellulose-based materials that can be safely composted after use. As part of the plasmid design process, we introduce NOODL (Novel Optimization Of DNA Linkers), a Julia-based genetic algorithm that generates custom spacer sequences for single-stranded DNA. This tool simplifies spacer design by minimizing unwanted interactions and secondary structures between functional ssDNA components for synthetic biology applications. By combining computational design and genetic engineering, our work offers an impactful approach to improving food safety while providing adaptable tools that foster innovation across synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/eceacb8c-d7d9-44cd-ba3e-cacb4cf29861/6cc02932-ec80-476c-b337-a6479c692acb-master.m3u8https://video.igem.org/videos/embed/vfPDiUt6s4EDjjgnL9tzK81381072025-11-06T18:04:06.527ZYES2025 Judging SessionsNOhttps://video.igem.org/w/9SQ5uY4D1rFeA25M3CgN4Bhttps://video.igem.org/lazy-static/thumbnails/eccfe8ae-d0a5-41f6-a5ec-891604f80446.jpgStuttgart: Judging SessionPlatinum-group metals (PGMs) are critical resources with low recycling rates due to environmentally hazardous and costly conventional leaching processes that rely on harsh chemicals. This project presents an innovative, sustainable approach to PGM recycling using oxalate as a green leaching agent. Our interdisciplinary method combines biotechnological and chemical strategies: genetically modified Corynebacterium glutamicum is engineered to produce and export oxalate into the extracellular environment, providing a biological source of the leaching agent. The chemical process involves dissolving catalyst residues in water, adding the biologically produced oxalate to form PGM-oxalate complexes, and isolating these complexes through water evaporation. This novel biotechnological-chemical approach offers a cost-effective and environmentally friendly alternative to traditional PGM recycling methods, potentially increasing recovery rates while reducing environmental impact. The integration of synthetic biology with green chemistry principles demonstrates a promising pathway toward sustainable critical metal recovery from exhausted automotive catalysts.https://static.igem.org/peertube/streaming-playlists/hls/47e1ed38-36f8-4a20-b7f7-ad0a5769bb61/b44cd7f0-b4d1-4b67-8666-c7c63fc364b5-master.m3u8https://video.igem.org/videos/embed/9SQ5uY4D1rFeA25M3CgN4B1538052025-11-06T18:04:06.954ZYES2025 Judging SessionsNOhttps://video.igem.org/w/2cWo73ZYZoLbq2wUNrEv3xhttps://video.igem.org/lazy-static/thumbnails/f8956444-d023-48c1-8623-531088d46f35.jpgJiangnan-China: Judging SessionAntimicrobial resistance (AMR) poses a severe global public health threat, with drug-resistant bacteria increasingly endangering human health.The human antimicrobial peptide LL-37 offers a promising solution due to its high safety, low resistance potential, and immunomodulatory activity. Our project employs Saccharomyces cerevisiae as a chassis cell, integrating genetic engineering, fermentation optimization, and a D2P cell-free system to achieve high-yield biosynthesis of functional LL-37 at a significantly lower cost than chemical synthesis.We developed the CytoFlow platform, integrating biodynamic simulations, reinforcement learning, and diffusion models. This platform optimizes S. cerevisiae cultivation and designs LL-37 variants with superior antimicrobial performance. We also developed the EFUV-Cycle and RLAI-Cycle, and designed the educational game Cytopia Defense, the "Life Glow" bio-art activity, and the handbook Busting Rumors about Synthetic Biology to enhance the project's impact in both Integrated Human Practices and education.https://static.igem.org/peertube/streaming-playlists/hls/09c3d56c-02aa-4cfe-87ac-7d08510ac1e7/9e8d8b4e-be22-444e-80f6-63b78df7f37b-master.m3u8https://video.igem.org/videos/embed/2cWo73ZYZoLbq2wUNrEv3x15880122025-11-06T18:04:13.568ZYES2025 Judging SessionsNOhttps://video.igem.org/w/giErxHaoK76hptMjG8RAdqhttps://video.igem.org/lazy-static/thumbnails/d2164459-1675-4351-836e-4091995b9108.jpgBNU-China: Judging SessionATP is essential for biosynthetic reactions but costly for large-scale applications. Polyphosphate kinase (PPK) can regenerate ATP from inexpensive polyphosphate (PolyP), yet its industrial use is limited by phosphate inhibition and poor stability. The BNU iGEM team developed V-CHARGEs (VLP-Coupled High-efficiency ATP Re-Generating Enzyme system), an innovative platform that integrates SlPPK with P22 virus-like particles (VLPs) and SpyTag/SpyCatcher coupling to achieve efficient ATP regeneration. By encapsulating SlPPK inside VLPs for protection and anchoring ATP-consuming enzymes outside, V-CHARGEs enables continuous ATP cycling with enhanced pH, portease and phosphate tolerance. This nanoconfined system provides a low-cost, stable, and modular solution for powering diverse ATP-dependent biosynthetic reactions, advancing sustainable biomanufacturing.https://static.igem.org/peertube/streaming-playlists/hls/7bf069ec-8815-455e-b90b-a3568c50a1b0/b06a67f8-9d13-4795-a133-62a88e0088c7-master.m3u8https://video.igem.org/videos/embed/giErxHaoK76hptMjG8RAdq1526092025-11-06T18:04:15.273ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fiDq4BmRE1wq9FYKCH7nk4https://video.igem.org/lazy-static/thumbnails/e6d756b0-cba6-459d-ba88-5a6496ba425b.jpgKCISLK-Taiwan: Judging SessionFood waste has a huge impact on our planet. It destroys habitats, emits huge amounts of greenhouse gases, and threatens society deeply. Currently, one of the most sustainable methods is using black soldier fly larvae to degrade food waste. However, black soldier fly larvae are unable to efficiently digest cellulose, suggesting that improving the degradation process could enhance overall conversion efficiency and lower the costs associated with food waste treatment. LarVase aims to mass-produce endo-1,4-β-glucanase, a cellulase originating from Bacillus subtilis, through cloning into an E. coli BL21 expression vector. With our specially designed plasmids, we used YebF, a carrier protein having a similar function as a signal peptide, to be able to transport endo-1,4-β-glucanase outside the cell. This will lower the current costs of enzyme production while maintaining environmental sustainability.https://static.igem.org/peertube/streaming-playlists/hls/73d6a49f-9a6f-4bef-9102-2994ae175705/43618a36-656e-412d-9408-3f2f3fd5f0c4-master.m3u8https://video.igem.org/videos/embed/fiDq4BmRE1wq9FYKCH7nk41487062025-11-06T18:04:21.327ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nAXTR4pJomhktFM9wUbt1Uhttps://video.igem.org/lazy-static/thumbnails/ce132c38-8ce4-41f6-a826-6cf12948ecf4.jpgShaping GMO Opinions - An iGEM MetastudyiGEM teams are at the forefront of innovation, developing exciting projects involving genetically modified organisms (GMOs). However, while these ideas showcase great creativity and potential, only a few can make the transition to real-world applications. A big part of this challenge lies in public perception, concerns about safety, and regulatory hurdles. In this talk, we’ll present insights from our meta-study, which analyzed surveys from previous iGEM teams as well as our own, to understand how the opinions on GMOs are shaped. Join us as we discuss how iGEM’s unique position can help transform public conversations, improve education, and contribute to establishing GMOs as a trusted technology for the future.https://static.igem.org/peertube/streaming-playlists/hls/aef1a558-1c51-4cbf-b683-64251ef6d410/79966eb8-6aa1-4fea-8d1d-480d268548ed-master.m3u8https://video.igem.org/videos/embed/nAXTR4pJomhktFM9wUbt1U5250132025-11-06T18:04:26.091ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mrvfGw1xjyqs1b8MeeSdA9https://video.igem.org/lazy-static/thumbnails/c5eddffd-5caf-401a-a807-41d001f7a4f7.jpgGHCIS: Judging SessionAntimicrobial peptides (AMPs) are naturally occurring defense molecules with broad-spectrum antimicrobial activity, low resistance induction, and high stability. Plectasin, a fungal AMP, effectively inhibits Gram-positive bacteria and is used in feed additives. Current production methods such as extraction and chemical synthesis remain limited by low yield and high cost. Genetically engineered microorganisms offer a promising alternative, enabling scalable, cost-effective AMP production with tailored design. The yeast Pichia pastorisis a particularly suitable host due to its safety, efficient secretion machinery, and simple cultivation. In this study, we engineer P. pastorisby integrating the plectasin NZ2114 gene and optimizing regulatory elements to generate a high-yield strain, thereby facilitating its commercial-scale production.https://static.igem.org/peertube/streaming-playlists/hls/a5866540-51f5-410b-8a37-66a7d79d18ec/c3a95c94-cbb9-47b2-b74f-efb3a0cb61e7-master.m3u8https://video.igem.org/videos/embed/mrvfGw1xjyqs1b8MeeSdA91505032025-11-06T18:04:33.423ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5BPEDSUXcmhQaJjh7giGj6https://video.igem.org/lazy-static/thumbnails/2f798aab-c6a2-4371-acd5-470daa89b541.jpgHUST-UEVE-UPSaclay: Judging SessionIn leguminous crops, root-knot nematodes and rhizobia interact competitively and cooperatively: nematodes damage roots to reduce rhizobial nodulation, while nodules alter root structure to aid nematode entry. Our project aims to promote rhizobial colonization and expel nematodes. We constructed a luteolin de novo biosynthetic pathway in engineered Bacillus subtilis, and screened soil-derived mild phages to regulate luteolin synthesis and programmed cell death of the bacterium via the cre-loxp system. For nematodes, salicylic acid (released when roots are damaged) acts as a switch to trigger the bacterium to express cry5-cry6 fusion protein, whose insecticidal effect was validated in Caenorhabditis elegans survival assays.https://static.igem.org/peertube/streaming-playlists/hls/2564f64a-6233-4e8b-89db-ec454c7d4911/2a1a8a11-b441-432d-9fed-760e854b8d47-master.m3u8https://video.igem.org/videos/embed/5BPEDSUXcmhQaJjh7giGj61632042025-11-06T18:04:53.678ZYES2025 Judging SessionsNOhttps://video.igem.org/w/9tXZ2Q2E2j99oBgTVWGXi3https://video.igem.org/lazy-static/thumbnails/0ea30480-8f66-43fa-b8a5-56d8a1a48317.jpgCity-of-London-UK: Judging SessionOne of the most neglected tropical diseases, Cryptosporidiosis kills an estimated 200,000 children every year and 10 million disability adjusted life years lost annually. It is caused by a parasite, and spreads through infected water samples globally. Current methods, such as qPCR, are expensive, unreliable and affected by inhibitors in faecal samples, with the most common methods having a sensitivity of around 40-60%. Using Loop Mediated Isothermal Amplification, we designed a novel point of care diagnostic for the 18s rRNA of Cryptosporidium, designing an efficient primer set, and four new fusion Bst polymerases, with subdomains designed to increase reverse transcriptase activity, thermostability and inhibitor tolerance. Targeting 18s rRNA allows the test to detect 1 oocyst/gram of faecal sample (compared to qPCR’s 300/gram). Results are shown colourimetrically for easy use. With our model and education work, we made the test even more accessible. It's time to shine a LAMP On Cryptosporidiosis!https://static.igem.org/peertube/streaming-playlists/hls/44b0b127-4802-4e2a-a8c7-3b59a3ffc398/4444bbfa-53b1-4b8c-8682-7517406a420a-master.m3u8https://video.igem.org/videos/embed/9tXZ2Q2E2j99oBgTVWGXi310920112025-11-06T18:05:04.798ZYES2025 Judging SessionsNOhttps://video.igem.org/w/bEBXXqa7BAujTNn88sKALAhttps://video.igem.org/lazy-static/thumbnails/6a04fb92-e87d-4497-9608-7400b8afc9ea.jpgSCUT-China: Judging SessionAs deep-space missions lengthen, sustaining astronaut nutrition becomes critical. We present a synthetic-biology platform using the hydrogen-oxidizing bacterium Cupriavidus necator H16 for in-situ production of human α-lactalbumin aboard spacecraft. The strain was engineered to autotrophically convert astronaut metabolic wastes (CO₂, urea) into active α-lactalbumin. Guided by genome-scale metabolic modeling, pathway optimization enabled a closed-loop production system. To improve nutritional performance, we rationally inserted optimized trypsin-cleavage sites to enhance gastrointestinal digestibility. We also designed a microgravity-adapted bioreactor that addresses gas–liquid mass-transfer limitations, facilitating efficient cultivation and product recovery. Together, these advances demonstrate the feasibility of microbial biomanufacturing for space life-support and provide a technical foundation for sustainable extraterrestrial nutrition.https://static.igem.org/peertube/streaming-playlists/hls/565fd05d-54c0-4736-a562-5052e8e904da/e1e626a8-0530-4622-a87f-6756a8d3710d-master.m3u8https://video.igem.org/videos/embed/bEBXXqa7BAujTNn88sKALA1271042025-11-06T18:05:17.948ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ftk8H7dau55e3XZDZT27jWhttps://video.igem.org/lazy-static/thumbnails/42e6e734-24bb-4ae5-bc72-f35d8c95538a.jpgRochester: Judging SessionSince the Mariner 4 flyby, Mars has inspired interplanetary exploration, but high payload costs limit human settlement. Our team proposes PHAntom, a synthetic biology system using engineered E. coli to convert Martian CO₂ into bioplastics and metabolites. Our two-strain E. coli system converts CO₂ into PHBV via an acetate intermediate. Strain 1 autotrophically fixes CO₂ and secretes acetate using the pta–ackA pathway. Strain 2, aided by tdcB/tdcE for propionyl-CoA supply and tesB/yciA to balance 3HB/3HV monomers, converts acetate into PHBV. A bicarbonate-responsive cAMP–CRP mechanism enhances transcription under high HCO₃⁻, while CRISPRi knockdown of gltA diverts acetyl-CoA from the TCA cycle, optimizing acetate production and PHBV yield. Team PHAntom has built a clinostat to simulate non-Earth gravity conditions and an extrusion system to convert PHBV granules into printable filaments. PHAntom enables sustainable off-world biomaterial production through integrated carbon capture, adaptive metabolism, and on-site manufacturinghttps://static.igem.org/peertube/streaming-playlists/hls/7530d069-21a2-4046-b0eb-c934c663b4da/bc790317-0313-40a7-8c87-6e05e88ba720-master.m3u8https://video.igem.org/videos/embed/ftk8H7dau55e3XZDZT27jW1234072025-11-06T18:05:26.236ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8vfH719JzT6rSE2HyPfAAAhttps://video.igem.org/lazy-static/thumbnails/d0363d8b-863b-4b2c-810b-069c3ffd3aad.jpgASU: Judging SessionAs an essential medicine, blood should be “available at all times, in adequate amounts and in appropriate dosage forms, with assured quality and affordability,” according to the World Health Organization (WHO). However as it stands in 2024, blood still fails to meet the availability and safety qualities in over half the world’s countries. Our solution is a compact, field ready ABO blood conversion kit. We have identified, cloned, and characterized activity for glycoside hydrolase enzymes from Akkermansia muciniphila. These enzymes have the ability to cleave off the A and B blood antigens and their extended antigen groups and can be lyophilized for long term storage. Our complete kit also includes a filtering system made of biological materials to remove immune reactive white blood cells and a Miniaturized Electronic Antigen Biosensor (MEAB) for rapid quantification of ABO antigens. Together these technologies can process safe, universally compatible blood available, anytime, anywhere.https://static.igem.org/peertube/streaming-playlists/hls/3cc59ac0-4a10-432e-82aa-8fbb48818f7e/783c2fbb-494c-4a8f-9d3b-e0f614877bb0-master.m3u8https://video.igem.org/videos/embed/8vfH719JzT6rSE2HyPfAAA1539042025-11-06T18:05:27.390ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vUSBcTBRtNGiCKqJ4nVJa1https://video.igem.org/lazy-static/thumbnails/7fd156d1-3df4-4f99-bd95-1dba82ce38f4.jpgNCHU: Judging SessionIn recent years, the environmental impact of greenhouse gas emissions from livestock has drawn increasing global attention, particularly methane released during cattle digestion. To address this issue, the NCHU iGEM team developed EcoCasein, a sustainable microbial milk alternative. Our project employs Kluyveromyces marxianus as a host to produce A2 β-casein, a naturally digestible variant of milk protein, using the PGASO multi-gene assembly system. By introducing carbon-fixation pathways such as the Calvin–Benson–Bassham cycle, we hope to reduce the net carbon footprint of protein production. EcoCasein not only provides a cow-less, easily digestible source of dairy protein but also demonstrates how synthetic biology can contribute to climate-friendly food innovation. Through integrated wet-lab construction, gas analysis, and human practices outreach, our project envisions a new model for sustainable nutrition and low-carbon dairy development.https://static.igem.org/peertube/streaming-playlists/hls/f23ae284-ef28-47f9-9d73-3a5fb41be0ea/e61d4fcf-afce-4fb2-a477-39792c0d715e-master.m3u8https://video.igem.org/videos/embed/vUSBcTBRtNGiCKqJ4nVJa11461002025-11-06T18:05:32.270ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rpFHeawi6QBZo2TdfW8SJ6https://video.igem.org/lazy-static/thumbnails/0db49663-f6b5-4c73-b2ce-413b2ce6b7ad.jpgBUAP-Puebla: Judging SessionPremature newborns often face respiratory distress due to underdeveloped lungs, requiring pulmonary surfactant for survival. Current treatments are costly, rely on animal-derived sources, and remain inaccesible to many healthcare systems wolrdwide. Our project uses synthetic biology and biomanufacturing to create an alternative surfactant that is animal-free, affordable, and scalable. By engineering microorganisms to produce key surfactant proteins, we aim to deliver a sustainable solution that bridges health inequities and reduces dependence on traditional animal-derived products. This approach not only addresses a pressing medical challenge but also introduces an ethical and environmentally responsible production pipeline. Through our work, we envision a future where every premature infant, regardless of geography or economic status, can access life-saving pulmonary surfactant demonstrating how synthetic biology can transform global health challenges into opportunities for innovation, sustainability, and equity.https://static.igem.org/peertube/streaming-playlists/hls/cdc30bbd-dc62-4e81-892e-72a32d8f1d49/b3205892-4c58-4b88-9cb2-9b98b9234818-master.m3u8https://video.igem.org/videos/embed/rpFHeawi6QBZo2TdfW8SJ61427042025-11-06T18:05:34.633ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uQcSMjaEQo3ZPjJ6Ev8pyyhttps://video.igem.org/lazy-static/thumbnails/1a501971-62e1-41e0-883a-8b267d8d5a69.jpgPennState: Judging SessionHeparosan is a key polysaccharide precursor in the synthesis of heparin, an essential anticoagulant widely used in medicine. However, current methods of heparosan production rely on inefficient microbial strains. Our project aims to design and optimize synthesis of heparosan in a more commonly used strain - BL21 (DE3). We are reconstructing the heparosan synthesis pathway found in E. coli K5 by expressing four essential genes—kfiA, kfiB, kfiC, and kfiD, and inserting them onto a single plasmid, incorporating a library of degenerate ribosome binding sites (RBS) on our primers. Using degenerate DNA sequences for our RBS allows us to synthesize a library of varying ribosomal binding affinity for each gene, which in turn, gives us a wide range of gene expression. This allows us to determine the optimal activity level for each gene to produce the most heparosan.https://static.igem.org/peertube/streaming-playlists/hls/e97ae6e9-837e-4beb-8306-9ef8c8eb4184/a7e3f43d-0ea6-4241-949f-26a761bfe045-master.m3u8https://video.igem.org/videos/embed/uQcSMjaEQo3ZPjJ6Ev8pyy1466032025-11-06T18:05:37.295ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oxwDdvBmd4m5ap2uEJz8Dshttps://video.igem.org/lazy-static/thumbnails/d7af56b5-bfa4-4073-ab04-b54d34d1c42a.jpgGCGS: Judging SessionThe plastic microbeads widely used in cosmetics have difficulty in degradation and continuously exacerbate the pollution of microplastics in the ocean, posing a serious threat to the ecosystem and human health. Polyhydroxyalkanoates (PHA), as a biodegradable material, have potential for substitution, but their poor controllability of particle morphology and high production costs limit their practical application. This project utilizes synthetic biology technology to design programmable and controllable engineered strains, developing environmentally friendly PHA-based microbeads as alternatives, aiming to provide sustainable solutions for the cosmetics industry and exploring innovative paths for biomanufacturing technology in pollution control.https://static.igem.org/peertube/streaming-playlists/hls/b68ffdb0-b38d-42de-ac5a-fa085bd27880/b1a8f0c2-58f7-4172-862b-c82e856db4e3-master.m3u8https://video.igem.org/videos/embed/oxwDdvBmd4m5ap2uEJz8Ds1529072025-11-06T18:05:39.825ZYES2025 Judging SessionsNOhttps://video.igem.org/w/mEtVrbr8L4G2pzNg3PC3CGhttps://video.igem.org/lazy-static/thumbnails/c9560cf0-fda7-4cd4-92a5-685351eddef1.jpgPCA Korea: Judging SessionSynthetic dyes are widely used in the textile industry but generate toxic effluents that cause serious environmental pollution. Our project seeks to provide a sustainable alternative by engineering Escherichia coli to biosynthesize several natural pigments, carotenoids (red, orange), violaceins (ranging from green to purple), and indigo (blue). We focus on optimizing tryptophan metabolism to efficiently channel precursors toward pigment biosynthesis, ensuring higher yields and consistent production. For indigo, we are also exploring novel flavin monooxygenases with enhanced catalytic activity and stability, aiming to overcome the limitations of existing enzymes. Through a combination of metabolic pathway engineering and enzyme discovery, we aim to create a robust microbial production platform capable of replacing harmful synthetic dye processes. By demonstrating the potential of microbial biosynthesis for natural dyes in E. coli, this project highlights synthetic biology’s ability to address environmental challenges and proposes an eco-friendly approach for the future of textile dyeing. https://static.igem.org/peertube/streaming-playlists/hls/a7563e59-df75-4f64-b71a-7ff2db22ed28/16b46e15-7f9d-4731-8b9b-afea8b5809ed-master.m3u8https://video.igem.org/videos/embed/mEtVrbr8L4G2pzNg3PC3CG15200292025-11-06T18:05:41.347ZYES2025 Judging SessionsNOhttps://video.igem.org/w/gMpqS1AcokpeX47tjqeCWohttps://video.igem.org/lazy-static/thumbnails/dded504b-5f8c-43b2-ad67-97515625a6e0.jpgHKU-HongKong: Judging SessionFacing unsustainable traditional hydrogen production, our project pioneers a biological alternative by engineering E. coli into a light-driven biofactory. We integrate synthetic light-harvesting complexes to capture energy, enabling the conversion of formate into clean hydrogen gas through optimized metabolic pathways. Rigorous safety measures, including kill switches, ensure biocontainment. Our integrated approach combines computational modeling with active stakeholder engagement—consulting energy experts, industries, and educators in Hong Kong—to align our solution, "NPM Zero," with urban energy needs and SDGs. By transforming renewable light into sustainable fuel, we advance green biotechnology and contribute to a decarbonized, hydrogen-based future.https://static.igem.org/peertube/streaming-playlists/hls/7fcffceb-e03f-4cb4-9e39-e169d8fe54ea/1530a118-ec78-49f2-b640-45f9fbad0eee-master.m3u8https://video.igem.org/videos/embed/gMpqS1AcokpeX47tjqeCWo1523082025-11-06T18:05:45.261ZYES2025 Judging SessionsNOhttps://video.igem.org/w/qJoudyYSJe8AXJEGZeQHo5https://video.igem.org/lazy-static/thumbnails/1b13d7de-61c1-44f8-8e13-bceb2d2e51b4.jpgDiscussing GMO Legislature in the EUDespite having much to gain from GM technologies, the EU is highly restrictive in its legislature. We want to discuss the potential the European union has in the fields of GMO research and industry, and whether a relaxation of the current laws is possible while still putting emphasis on safety and responsibility.https://static.igem.org/peertube/streaming-playlists/hls/c8466c89-98a8-4a0f-a410-2caa953f1ab4/cd652675-1ca7-47f6-a3f2-7860593d11e8-master.m3u8https://video.igem.org/videos/embed/qJoudyYSJe8AXJEGZeQHo5362012025-11-06T18:05:50.750ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/bp87iouNvs6fDP5E6xMD2Hhttps://video.igem.org/lazy-static/thumbnails/e6da7196-4596-4fe4-b759-e20b5b851f23.jpgKULeuven: Judging SessionBlack Pod Disease, caused by Phytophthora species, destroys up to 30% of global cocoa yield each year and threatens the livelihoods of farmers. Our project, PhytoBlock, harnesses the natural power of Bacillus subtilis, that is engineered to secrete antimicrobial peptides upon detection of Phytophthora species, hereby preventing Black Pod Disease. By offering an alternative to chemical fungicides, PhytoBlock protects cacao crops, reduces accumulation of chemicals in the environment, and supports long-term agricultural resilience.https://static.igem.org/peertube/streaming-playlists/hls/5435dfc8-5921-41c1-adf6-8ac4b9a9692f/d5b6154d-87f9-4f81-b0c8-d4eb2ceca318-master.m3u8https://video.igem.org/videos/embed/bp87iouNvs6fDP5E6xMD2H1566042025-11-06T18:06:06.916ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oEFKEcFsoJv3wqfLjbMXPZhttps://video.igem.org/lazy-static/thumbnails/59e54acf-a3e6-4209-ae1a-6aa399f3ea72.jpgPlant Waxes: A Regulatory Symphony of Biosynthesis PathwaysOur research is based on the idea of ​​synthetic biology to develop a high-efficiency and high-yield wax synthesis system. Using Nicotiana Benthamiana as a carrier, we increase the wax content in tobacco plants by modifying the wax synthesis and metabolic pathways in the plant. On the one hand, we improve the plant's own stress resistance and create new high-wax germplasm resource materials. On the other hand, we provide low-cost, green and sustainable industrial raw materials.https://static.igem.org/peertube/streaming-playlists/hls/b78fcff1-24a2-4b07-a344-1ef8558cd883/872b704b-3f58-4427-822e-9d23065cf65d-master.m3u8https://video.igem.org/videos/embed/oEFKEcFsoJv3wqfLjbMXPZ615012025-11-06T18:07:06.191ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/s5tgiSq4qJGnNNPa6UZmGmhttps://video.igem.org/lazy-static/thumbnails/c55ac27a-5048-4a1d-b730-0f48b169e3bf.jpgPreserVEGEvery year, 1.3 billion tons of food are wasted globally, with fruits and vegetables making up 45% of this loss. Fresh produce keeps respiring after harvest and is very sensitive to gases like ethylene. Climacteric fruits release ethylene, which accelerates their ripening and deterioration nearby produce. Since we often judge freshness only by appearance, edible food is sometimes thrown away. And if deteriorated food is left alone, safety risks like foodborne illness increase. To solve this problem, we developed PreserVEG, a Cre/loxP-based three-in-one system for climacteric fruits and vegetables. It has three key functions: Protection — nisin stops harmful bacteria; Sense — detection of ethylene gas; Visualization — GFP is expressed when deterioration begins. Using the Cre/loxP system, nisin protects produce while fresh, then ethylene triggers GFP to show spoilage. PreserVEG helps keep fruits and vegetables fresh and reduces global food waste.https://static.igem.org/peertube/streaming-playlists/hls/d32d61da-29dd-4475-aa0d-8e05e45089fc/2470edd3-b9d6-4ba7-8c31-97107a4a6171-master.m3u8https://video.igem.org/videos/embed/s5tgiSq4qJGnNNPa6UZmGm5820112025-11-06T18:08:22.968ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/sKEb3UNCXD59R97qFo8iHShttps://video.igem.org/lazy-static/thumbnails/dedb2874-090a-4924-82f9-40ad0861b340.jpgGEC-Guangzhou: Judging SessionBacterial wilt, caused by Ralstonia solanacearum, devastates over 400 crops including tomatoes and peppers, with field incidence rates reaching 50–80% in southern China. To address the challenge of hidden early infection, we engineered a smart biosensor that detects the pathogen’s AHL signaling molecules and produces a visible blue signal（indigo） for rapid field diagnosis. In addition, a companion strain synthesizes salicylic acid (SA), a natural plant immune signal, to enhance crop resistance. This low-cost, portable, and farmer-friendly system enables early detection and targeted intervention, providing an innovative solution for managing bacterial wilt and reducing agricultural losses.https://static.igem.org/peertube/streaming-playlists/hls/d8a61cc5-820b-4816-ac32-2f548ebe31b8/0f73b7c9-468c-4229-bc52-7c77d4e6ba68-master.m3u8https://video.igem.org/videos/embed/sKEb3UNCXD59R97qFo8iHS1567052025-11-06T18:08:47.905ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uVwPKiG4Euj8vJvnGxzVDLhttps://video.igem.org/lazy-static/thumbnails/51336c76-d604-4c5a-849d-54e8e270f513.jpgRains-ECO: Judging SessionOur research is based on the idea of ​​synthetic biology to develop a high-efficiency and high-yield wax synthesis system. Using Nicotiana Benthamiana as a carrier, we increase the wax content in tobacco plants by modifying the wax synthesis and metabolic pathways in the plant. On the one hand, we improve the plant's own stress resistance and create new high-wax germplasm resource materials. On the other hand, we provide low-cost, green and sustainable industrial raw materials.https://static.igem.org/peertube/streaming-playlists/hls/ea394c3a-d3e9-4ce7-b56e-0347c25691da/ffd5f5b0-6cbd-4b91-8f1a-d25e4d7a95a7-master.m3u8https://video.igem.org/videos/embed/uVwPKiG4Euj8vJvnGxzVDL1602022025-11-06T18:08:53.726ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7tykfZYBgQXAXRRpBki52Phttps://video.igem.org/lazy-static/thumbnails/f82fcd48-64fe-47e3-844c-79c562dbd117.jpgSCAU Guangzhou: Judging SessionFolate is a vitamin that functions in DNA synthesis, amino acid metabolism, and various biosynthetic pathways. Folate deficiency is directly associated with diseases like neural tube defects, megaloblastic anemia, cleft lip and palate. Globally, folate deficiency has become a serious public health problem. Industrially synthesized folic acid has poor metabolic efficiency, and the synthesis process causes serious environmental pollution. However, plant folate has high active derivatives, good absorption efficiency, and is sustainable. Therefore, the most effective way to supplement folate is food fortification. This project proposes a scheme for creating high-folate soybeans by integrating biosynthetic elements. Four key folate synthetases were over-expressed in soybean seeds. HPLC-MS detection showed that the enzyme HDFR can double the content of 5-methyl-tetrahydrofolate, the active folate component, which is good for people with genetic defects. Our project has successfully achieved expected goals and exerted extensive impacts in scientific research and society.https://static.igem.org/peertube/streaming-playlists/hls/346fd6cd-fd77-499b-b2ef-f570191997f1/f8bcdac5-be24-4439-8449-ba7ca5a4ff38-master.m3u8https://video.igem.org/videos/embed/7tykfZYBgQXAXRRpBki52P1754042025-11-06T18:08:56.361ZYES2025 Judging SessionsNOhttps://video.igem.org/w/upSANccpC6NEXLqcFbWW3Chttps://video.igem.org/lazy-static/thumbnails/35631471-985b-4890-a3e9-8d97e194d368.jpgShanghai-SDG: Judging SessionThe spent coffee ground (SCG) holds significant potential for producing organic fertilizers. Residual caffeine, however, inhibits plant growth due to its phytotoxicity, substantially limiting the application of SCG in bio-fertilizer production. Conventional decaffeination methods suffer from high costs and environmental concerns. Here, we genetically engineered Escherichia coli (E. coli) by integrating genes involved in caffeine degradation, aiming to remove the residual caffeine from SGG during fermentation while producing valuable biofertilizers. Our project provides an eco-friendly and cost-effective solution for the recycling of SCG. The safety and scalability of the engineered E. coli ensure its broad applicability in agriculture, horticulture, and environmental protection.https://static.igem.org/peertube/streaming-playlists/hls/e6152c29-9945-4937-a155-1dc299ec9360/6f33bf32-61d5-43ee-88b1-39790b96a304-master.m3u8https://video.igem.org/videos/embed/upSANccpC6NEXLqcFbWW3C1560052025-11-06T18:09:02.263ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4Uwrym9BcLbUv9EFiFc1XMhttps://video.igem.org/lazy-static/thumbnails/e9770c9a-2b99-450f-816e-2fc609da51dc.jpgRational Engineering of Novel Ultra-Efficient Amidohydrolases for Ochratoxin A DegradationBy integrating enzyme engineering with synthetic biology, we have developed a highly efficient and specific biodegradation platform with exceptional potential. Starting from ADH3—the most active OTA hydrolase reported to date—we rationally designed the S88E mutant, whose additional hydrogen-bond network increases catalytic efficiency (kcat/KM) by 3.7-fold. To surmount the remaining catalytic bottleneck, we mined the sequence space of ADH3 and identified the homologous enzyme LIADH (73 % identity) that possesses twice the native activity of ADH3. Structure-guided redesign of LIADH yielded the I326A variant; removal of the γ-branched side chain relieves steric congestion at the acyl-enzyme intermediate, affording a further 75 % improvement in activity. Collectively, we obtained two high-performance biocatalysts—ADH3-S88E and LIADH-I326A—and accomplished the first comprehensive structural, kinetic, and mechanistic characterization of any OTA hydrolase.https://static.igem.org/peertube/streaming-playlists/hls/1fa0da0b-7324-4f35-9fb0-ef343155f62b/05bc286a-2acf-457e-8638-4d6b50588133-master.m3u8https://video.igem.org/videos/embed/4Uwrym9BcLbUv9EFiFc1XM5070102025-11-06T18:09:45.783ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/b9FfizTTw3vPYEbN9r6T8Yhttps://video.igem.org/lazy-static/thumbnails/a1e551d6-2f62-44b1-961e-cf2d2f61e111.jpgDuke: Judging SessionVentilator-associated pneumonia (VAP) arises when antibiotic-resistant bacteria form biofilms on endotracheal tubes, shielding pathogens from treatment. RESPIRA is a Bacillus subtilis-based living therapeutic engineered to detect and dismantle these biofilms at their source. Triggered by pathogen quorum-sensing signals, RESPIRA activates a synthetic gene circuit that drives secretion of enzymes to degrade the biofilm matrix, restoring bacterial susceptibility to antibiotics and immune attack. Our team integrated wet lab, modeling, and ethical design. We assembled quorum-sensing circuits, optimized B. subtilis transformation, and built clearFoam, an open-source reaction–diffusion simulator linking gene-circuit activation to biofilm degradation and BioBrick parameters. Sensitivity analysis and experimental diffusion data validated this framework. Guided by clinicians and ethicists through a responsible research framework, we prioritized receptor-based circuit feedback, gel delivery, and biocontainment. Together, these innovations make RESPIRA a programmable, safe, and clinically informed therapy that converts biofilm infections from persistent to treatable.https://static.igem.org/peertube/streaming-playlists/hls/523185f9-a52f-4ff6-876c-f1967d76f8d2/dd0fc517-7a3d-494e-bd5e-35c7e726c83d-master.m3u8https://video.igem.org/videos/embed/b9FfizTTw3vPYEbN9r6T8Y1558052025-11-06T18:10:04.472ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ctanJF8gUirXRK4gMRUSrqhttps://video.igem.org/lazy-static/thumbnails/ce139cf0-0970-482a-b10a-7aeda542b37f.jpgFreiburg: Judging SessionAntibodies play a crucial role in immunity by binding to specific antigens. Despite their widespread use, the production of antibodies remains costly and time-consuming, and dependent upon animal use. Our project, Concave, seeks to overcome these challenges by developing a modular synthetic biology platform to design customized binding proteins that mimic the versatility of antibodies and can be efficiently produced in E. coli. We are developing a scalable system for generating highly diverse leucine-rich repeat (LRR) proteins known as Repebodies, which are synthetic variants of lamprey VLRs that function similarly to antibodies. By combining this with retron-based mutagenesis, we enable continuous, in situ diversification of LRRs without manual intervention, allowing us to generate Repebodies that bind virtually any antigen. In order to use the Repebodies’ target binding, we are designing Repebody-nanobody fusion proteins that interface with mammalian degradation machinery. This system is designed for degradation of membrane-bound or cytoplasmic proteins.https://static.igem.org/peertube/streaming-playlists/hls/5cdf626b-29f8-41b7-a5c4-76c3421b8a5a/fdc2df4f-8221-45b6-b291-eb60a3aea3de-master.m3u8https://video.igem.org/videos/embed/ctanJF8gUirXRK4gMRUSrq14950112025-11-06T18:10:10.790ZYES2025 Judging SessionsNOhttps://video.igem.org/w/weJPREWRzGu5TbHefi6r2Yhttps://video.igem.org/lazy-static/thumbnails/e4f3aa16-35fc-4b5f-9c09-d425e0e42583.jpgKCL-UK: Judging SessionOne disease. Two billion lives affected. Tuberculosis (TB) remains humanity’s most persistent infectious killer - and its hidden form, latent TB, can strike without warning. Yet current tests are slow, costly, and often out of reach for the communities hit hardest. Infecheck addresses the problem with early detection of LTB. We are developing a cheap, paper-strip diagnostic that uses a simple finger-prick blood sample to detect upregulated miRNAs specific to LTB. We explored two promising methods for exosomal miRNA detection: Toehold Switches and CCDR. We envision our end-product to be in the form of a lateral flow test and to use microfluidics as the extraction method. The test delivers easy-to-read results without requiring lab-based equipment. Our approach prevents the progression from latent to active TB, therefore reducing patient suffering and TB spread. INFECHECK - because we can’t cure what we can’t find. https://static.igem.org/peertube/streaming-playlists/hls/f4dd3881-3797-4c73-8172-d2d092f6c04e/468ec0c0-55ec-4e72-a695-dee0f7c308e3-master.m3u8https://video.igem.org/videos/embed/weJPREWRzGu5TbHefi6r2Y1636062025-11-06T18:10:17.175ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oFR3XySXyhR9VM99wgMMGGhttps://video.igem.org/lazy-static/thumbnails/28009a1b-8925-49da-a2c1-3aaf47938201.jpgStony-Brook: Judging SessionTargeted delivery of therapeutic proteins toward latent HIV-infected cells remains a major challenge in eradicating HIV. Leading therapies block entry via envelope proteins or coreceptors, as well as reverse transcription. We developed a protein-based delivery system using a detoxified single-chain diphtheria toxin (DTA) as a translocation carrier across the cell membrane. This system delivers large protein cargoes, such as Cas13a, into cells in a receptor-dependent manner. A GP120 gene fragment was added to the fusion protein to act as the ligand for CD4+ T-helper cell receptors. These systems remain under development and low expression of Cas13a-DTA in E. coli (10-beta, Rosetta, and W3110 strains) poses challenges in extraction. Our research complements gene editing and external protein therapies to evaluate HIV cleavage in mimic CD4 receptor cells (HEK293). Quantifications of ssRNA cleavage via RT-qPCR will be presented, suggesting how effectively this treatment could extend to pharmaceutical applications. https://static.igem.org/peertube/streaming-playlists/hls/b7b9494b-289a-4106-b7d0-473486e05b44/4ef160b7-9080-4b20-8140-87e13977ded0-master.m3u8https://video.igem.org/videos/embed/oFR3XySXyhR9VM99wgMMGG15700202025-11-06T18:10:19.067ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5pebuDbvopfoPmWouht7dPhttps://video.igem.org/lazy-static/thumbnails/3eac61bf-ce2a-4b54-8519-0abe03c685f9.jpgNJTech-China: Judging SessionPolyamide 54 (PA54)—synthesized from bio-based cadaverine and succinate—is an essential polymer with a wide range of market demand. Conventional biosynthesis requires two separate bacterial strains, leading to complex processes and substantial waste salt generation. To overcome this, we selected a lysine-producing strain E. coli NT1003 as a basal cell to engineer co-producing cadaverine and succinate from glucose. This enables acid–base neutralization and in situ CO₂ fixation, minimizing neutralizing agents and waste salt. We constructed genetic switches to regulate lysine decarboxylase (CadA) and optimized CadA for efficient lysine-to-cadaverine conversion. Cofactor engineering further enhanced succinate synthesis. By integrating these modules, we created an intelligent cell factory that simultaneously generates cadaverine and succinate from glucose. This sustainable strategy supports green production of bio-PA, promotes public familiarity with bio-based materials, and encourages greener lifestyles. https://static.igem.org/peertube/streaming-playlists/hls/23a2c8cd-79d8-46b5-aa46-b371f7a154f7/0d0a929f-acef-4717-8303-9dae6d96e505-master.m3u8https://video.igem.org/videos/embed/5pebuDbvopfoPmWouht7dP14600112025-11-06T18:10:19.966ZYES2025 Judging SessionsNOhttps://video.igem.org/w/gGEdmjcUD1RD4kRgcTAM5Uhttps://video.igem.org/lazy-static/thumbnails/3ebcafa8-7dd4-434e-9ff7-56013d1bd550.jpgPeking: Judging SessionHalitosis, nausea, and bloating—these are discomforts that people with Helicobacter pylori (Hp) infection suffer from every day. As the culprit of chronic gastric diseases, Hp has infected over half of the global population. In 2025, integrating probiotic engineering with micromotor delivery, the Peking team constructed HpBusters. The sensing-and-therapy system and the adhesion system were designed and implemented in genetically modified Saccharomyces boulardii to sense the biomarker Nα-methylhistamine, and while adhered to Hp, to secrete the biofilm-degrading enzyme AiiA. Micromotors, based on calcium carbonate, propel the encapsulating pH-responsive microgels through the gastric mucus barrier, releasing probiotics directly at infection sites. Models were established to comprehensively evaluate and simulate the efficiency of HpBusters across all processes. Human practices were conducted to forge connections between our project and society. We hope this antibiotic-free strategy enables targeted reaction, biofilm eradication and long-term protection, offering Hp-infected patients a comfortable yet effective therapeutic alternative. https://static.igem.org/peertube/streaming-playlists/hls/7f266158-942e-4ab1-8802-963970b98f10/5fe9a233-bd2b-4b83-9aef-e9029125414c-master.m3u8https://video.igem.org/videos/embed/gGEdmjcUD1RD4kRgcTAM5U15750192025-11-06T18:10:21.498ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7BW8xttxkhbRiTdBzPXKEFhttps://video.igem.org/lazy-static/thumbnails/f3eae5b4-4629-482e-b985-aae2081e5915.jpgOutaouais: Judging SessionBy 2050, antimicrobial resistance (AMR) is expected to kill 10 million people each year, making it a major global threat. Here in Québec, our farmers follow strict rules for antibiotic use—they require a vet’s prescription. Even with these measures, resistant bacteria still emerge, particularly in manure and wastewater. When we started our One Health Outaouais (OHO) project, our plan was to develop a test for AMR genes to map the region’s resistome. But conversations with farmers, veterinarians, and experts helped us realize our approach was too academic. They didn’t need more data; they needed practical tools to make better, faster decisions for their animals. So, we transformed our test into a product: the VIGIL | FARM platform. VIGIL | FARM will provide farmers with on-site rapid diagnostics and reliable information, helping them use antibiotics more precisely and only when necessary — protecting both animal health and public safety.https://static.igem.org/peertube/streaming-playlists/hls/359b3905-376a-4629-9dbb-46ec890925b7/68eb9655-0420-40ee-a829-2ac28c24a9bd-master.m3u8https://video.igem.org/videos/embed/7BW8xttxkhbRiTdBzPXKEF1542002025-11-06T18:10:33.375ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vijiSdSA8R5VUvJq3hyJafhttps://video.igem.org/lazy-static/thumbnails/c93c8a8d-9e90-46d9-bfa2-e56587826d85.jpgSMU-Union-China: Judging SessionInfluenza A virus (IAV), characterized by its high mutability and cross-species transmission capability, has triggered multiple global pandemics. Existing vaccines and antiviral drugs face limitations such as short-lived protection, target escape, and drug resistance. To address the critical challenges in respiratory infection prevention, this project employs synthetic biology to engineer nasal-colonizing probiotics (Lactobacillus rhamnosus LGG). By sensing the virus, triggering a cascade response, and ultimately realizing virus neutralization, a multi-module synergistic chain closed-loop defense system is constructed with these probiotics. Additionally, a dual biosafety mechanism is also incorporated, which enables rapid self-destruction triggered by environmental leakage or clinical risk while giving the population the freedom to control intervention. This innovative strategy pioneers a novel synthetic biology-driven approach for influenza control, offering significant public health implications.https://static.igem.org/peertube/streaming-playlists/hls/ed43f2ad-39a2-4953-9c37-0809969bc340/e08b811a-a89b-4474-973d-14647873c875-master.m3u8https://video.igem.org/videos/embed/vijiSdSA8R5VUvJq3hyJaf1220042025-11-06T18:10:52.832ZYES2025 Judging SessionsNOhttps://video.igem.org/w/m3HNTTA5LqwSfqhXYo3DPUhttps://video.igem.org/lazy-static/thumbnails/03947590-27d0-43d3-b081-7d98a0e5b2ed.jpgSUSTech-BIO: Judging SessionTo address the "super fungus" Candida auris (multidrug-resistant, highly pathogenic, high mortality), this project uses Acidovorax citrulli’s unique fungus-killing T6SS—unlike most T6SS that only target Gram-negative bacteria. Its structural components are reconstructed in E. coli BL21 as anti-C. auris engineered bacteria, formulated as lyophilized powder and activated via arabinose-containing hydrogel. A pH-sensitive promoter (Pasr) enhances specificity in C. auris’ acidic environment. A pBAD/pDUSK-regulated suicide switch controlling T6SS immunity proteins restricts survival to the hydrogel’s dark, arabinose-rich environment (blue light induces death), ensuring self-elimination outside and allowing controlled death timing. Wet-lab models predict optimal parameters; improved effector delivery boosts targeting, offering an innovative treatment.https://static.igem.org/peertube/streaming-playlists/hls/a25806b2-7a52-48e8-8a67-68d59dfddb7e/af31ac3f-432d-4fe6-80aa-dcf6d10327e5-master.m3u8https://video.igem.org/videos/embed/m3HNTTA5LqwSfqhXYo3DPU9740232025-11-06T18:10:58.134ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6NbfdoqaNRp1RKkSVj8zJGhttps://video.igem.org/lazy-static/thumbnails/482e36fe-c483-495a-8597-81d884d5bd6f.jpgCoreSpin: Modified Spidroin Proteins as Thermally Conductive Biomaterials for Heat Exchanger Enha...Heat exchanger biofouling drives global energy usage and greenhouse-gas emissions. Found in essential infrastructure, heat exchangers contain thermally conductive copper plates prone to biofilm formation, which reduces thermal conductivity by up to 98%, increasing energy consumption. Our solution entails coating copper plates with modified spider silk proteins, produced in E. coli, which maintain plate conductivity and repel bacterial adhesion through their nanostructure. Crystalline β-sheets, flagged by amorphous terminal domains, confer high tensile strength and thermal conductivity to spidroins. β-sheets were modified to maximise thermal conductivity by increasing size. Terminal domains were modified for copper adhesion through addition of cysteine residues. Protein expression was confirmed with fluorescence imaging, and tested by mass determination and sequencing via LC-MS. Copper adhesion and resulting nanostructure were tested with SEM imaging and ATR-FTIR analysis. This research demonstrates spidroin potential beyond biomedical contexts, providing a sustainable, energy-efficient coating contributing to a cleaner climate and sustainable economy.https://static.igem.org/peertube/streaming-playlists/hls/2ef03870-4930-4a9e-b0f3-c9fdc2e904a8/116773e6-128a-4ac8-9912-5bb25158a4c4-master.m3u8https://video.igem.org/videos/embed/6NbfdoqaNRp1RKkSVj8zJG6500112025-11-06T18:11:06.624ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/tGUsXgPHGwUsddVb94utxshttps://video.igem.org/lazy-static/thumbnails/6bbe1712-ed29-48c4-9341-fe8eb7b71484.jpgUNILA-LatAm: Judging SessionIn 2024, Brazil recorded the world’s highest number of dengue cases, with over 6 million suspected and 3 million confirmed infections. Foz do Iguaçu, in western Paraná, faced a severe outbreak, with more than 10,000 reported cases, 1,280 confirmed infections, and 22 deaths, leading to a State of Emergency. To address this situation, Nanoden proposes an innovative synthetic biology solution: to develop nanobodies capable of binding to the dengue virus envelope protein, followed by the genetic modification of the mosquito’s natural bacterium, Serratia marcescens, to produce these nanobodies. This interaction prevents the virus from entering mosquito cells, interrupting its transmission and offering a sustainable, long-term strategy for vector control.https://static.igem.org/peertube/streaming-playlists/hls/e05cd3bf-b3ef-44c5-a490-3ba68a48f17c/252b4547-d539-4b13-a407-c7253bdb960e-master.m3u8https://video.igem.org/videos/embed/tGUsXgPHGwUsddVb94utxs1202082025-11-06T18:11:14.814ZYES2025 Judging SessionsNOhttps://video.igem.org/w/aZYtXtou7C5DnucENcUSAjhttps://video.igem.org/lazy-static/thumbnails/89d45a5e-27f0-437a-ac3e-bf80835e0d95.jpgAlma: Judging SessionPseudogymnoascus destructans is a pathogenic fungus that causes White-nose syndrome (WNS), one of the most devastating wildlife diseases in modern history, responsible for mass bat mortality across North America. Locally in Michigan, 5 of our 9 bat species are affected--with repercussions for biodiversity, agriculture, public health, and environmental stability. WNS develops in bats during their hibernation period when proteolytic enzymes produced by the fungus degrade the collagen in their nose, ears, and wings, causing them to wake prematurely from wintertime hibernation, leading to energy depletion, lethargy, and death by starvation due to the lack of necessary resources in winter. There are no effective treatments currently. We propose engineering Escherichia coli to secrete serine protease inhibitor(s) targeting the virulence factor of the fungus. These inhibitors would block collagen degradation, allowing bats to maintain uninterrupted hibernation, thus improving survival outcomes for one of our most essential, if silent allies.https://static.igem.org/peertube/streaming-playlists/hls/50fa737b-8650-4521-9744-b2f3ce0b6e5e/bb4a5f85-06c4-4abe-9fc7-130b1717e9c7-master.m3u8https://video.igem.org/videos/embed/aZYtXtou7C5DnucENcUSAj1132002025-11-06T18:11:18.830ZYES2025 Judging SessionsNOhttps://video.igem.org/w/kTrwsp44PrCFo6yw8rbKA6https://video.igem.org/lazy-static/thumbnails/bef56f1f-40db-42bc-9f2d-6693d4d189c1.jpgVilnius-Lithuania: Judging SessionLithuania is a hotspot in Europe for tick-borne diseases, with thousands of people exposed to Lyme disease and tick-borne encephalitis annually. However, despite awareness of these common infections, a significant gap remains: we lack vital data on other pathogens circulating in wild tick populations. This missing information forces researchers, doctors, and public health officials to make educated guesses. To address this, we present a breakthrough solution using TIGR-Tas—a novel RNA-guided, DNA-targeting system. Unlike CRISPR-Cas, TIGR-Tas operates in a PAM-independent manner, expanding the range of detectable DNA sequences. By integrating TIGR-Tas with lateral flow assays and isothermal DNA amplification methods such as RPA, it becomes a powerful, field-ready diagnostic tool. With this system, we aim to uncover the hidden diversity of tick-borne pathogens, empowering healthcare, enhancing prevention, advancing research, and protecting communities throughout Lithuania and beyond.https://static.igem.org/peertube/streaming-playlists/hls/a10c4c15-9712-4b4b-ad69-229a3f7298c5/386ca45a-bae8-45a2-bb76-7c5141978352-master.m3u8https://video.igem.org/videos/embed/kTrwsp44PrCFo6yw8rbKA61442022025-11-06T18:11:23.188ZYES2025 Judging SessionsNOhttps://video.igem.org/w/gRmb3ajgaZkis5ruqq62Hchttps://video.igem.org/lazy-static/thumbnails/ec8a4bd7-e5a0-4d32-b6e7-e38358b52038.jpgZQT-Nanjing: Judging SessionOur project is expected to provide a new idea and method for cancer treatment. In recent years, kynureninase (KYNase) has gradually attracted extensive attention in the field of cancer immunotherapy. We utilized synthetic biology methods and engineered bacteria to express KY Nase, regulating the metabolism of the KP pathway within tumor cells, consuming its downstream metabolite Kyn. This inhibits tumor immune escape, enhances the host's immune system response, and achieves tumor cell death. We utilized Escherichia coli BL21 (DE3) as the chassis cell and the hypoxic and high-lactic-acid regulatory ALPaGA subsystem as promoter, to express KYNase in the tumor microenvironment. We also made semi-rational modifications to KYNase, hoping to obtain an enzyme with better catalytic effect. We designed and built a PhiX174E lysis protein module to release KYNase extracellularly at the right time. For biosafety, we designed a suicide switch to prevent engineered strains from being released into the environment. https://static.igem.org/peertube/streaming-playlists/hls/805cf4eb-6d9e-412d-8c1d-da92ebfec341/59863c6e-7a0c-4616-a66f-3f62d8742836-master.m3u8https://video.igem.org/videos/embed/gRmb3ajgaZkis5ruqq62Hc985012025-11-06T18:11:25.708ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vNgD68hckGPfkeGQ9WS2hNhttps://video.igem.org/lazy-static/thumbnails/cb309aa8-f8ea-4a00-95be-e66be91fbc05.jpgDuCon: A Dual-Microbe System for Vinasse Recycling Through Conversion to SuccinateThe treatment of Baijiu vinasse, which contains hard-to-degrade carbon sources, is a significant environmental challenge. For our iGEM project, we designed an innovative dual-microbe system to tackle this issue and produce high-value succinate. We genetically engineered Trichoderma reesei to secrete laccase (from white rot fungus) and its native cellulase. This enables the simultaneous breakdown of lignin into short arenes and cellulose within the vinasse. Subsequently, the engineered Pseudomonas putida is introduced to uptake these arenes and direct them into its modified TCA cycle. We specifically engineered this pathway to overproduce succinate and added an efflux channel for its secretion. This system promises efficient vinasse decomposition while generating a valuable chemical, balancing environmental sustainability with economic benefit.https://static.igem.org/peertube/streaming-playlists/hls/f14edf6a-51fb-456e-a0d7-ec7dd0169622/8f24c8e3-7495-43b2-882f-6f6200459aa7-master.m3u8https://video.igem.org/videos/embed/vNgD68hckGPfkeGQ9WS2hN524032025-11-06T18:12:27.282ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/q9cA7ER9KZW6aiqWQAtPaAhttps://video.igem.org/lazy-static/thumbnails/6c831af9-619b-4d9e-80a3-b4aed1250a0d.jpgPolyGone: A Synthetically Engineered Fish Feed Additive that Fights MicroplasticPolygone seeks to improve human health by eliminating the microplastics that have accumulated in our seafood. With synthetic biology, Polygone engineered probiotics can enzymatically degrade plastic in fish guts, helping to create a cleaner diet and a cleaner world.https://static.igem.org/peertube/streaming-playlists/hls/c3806b62-bbfd-48a6-b1ef-8cc95aa874a0/cd358e87-70c7-4500-a186-2cd89d06de09-master.m3u8https://video.igem.org/videos/embed/q9cA7ER9KZW6aiqWQAtPaA576082025-11-06T18:13:31.634ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/t8G92t3DWUEbsBzmy2KfYYhttps://video.igem.org/lazy-static/thumbnails/1bd046dd-9224-497b-a457-3ca4d35104cf.jpgO! Super CarpetGreen tides caused by Ulva prolifera have become a seasonal ecological disaster in Qingdao. The traditional physical salvage methods are time-consuming and laborious. So our team’s project uses a synthetic biology solution to address green tides at the source—spores, a key driver of bloom recurrence.​ Since the core of our project is "capture spore", we rearranged letters and named our project “O! Super Carpet”. It is composed of three main modules. We would like to name them after spells from Harry Potter. First, the 'Ennervate' survival spell ensures that our engineered bacteria can survive in high-salinity seawater. Second, the 'Permanent Sticking' functional spell is responsible for efficiently capturing Ulva spores with specificity. Finally, the 'Avada Kedavra' biosafety spell guarantees safety of the project in open environments. By combining synthetic biology with ecological insight, our project aims to demonstrate how engineered microbes can offer sustainable solutions to marine environmental crises.https://static.igem.org/peertube/streaming-playlists/hls/dbb9afb5-1b30-43de-927e-f62d6fda2128/e826960f-828e-41f3-9a9a-c86fb8edf458-master.m3u8https://video.igem.org/videos/embed/t8G92t3DWUEbsBzmy2KfYY5420172025-11-06T18:14:55.686ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/phs9DEQiyitH82AGx1evzjhttps://video.igem.org/lazy-static/thumbnails/634478aa-ead6-4103-ac18-86e4af8fc496.jpgWestlake: Judging SessionOur project aims to develop a CRISPRa/TetON fusion system for inducible antiviral gene activation, enabling precise control over immune and endocytic pathway upregulation in mammalian cells. By combining dCas9-VP64, rtTA, and sgRNAs within a modular delivery framework, we sought to create a tunable gene expression platform that could be rapidly activated through Doxycycline induction. Preliminary results have shown minimal to no detectable protein expression across varying Doxycycline concentrations and induction times. Moreover, the system’s capacity to induce downstream gene activation via independent or co-delivered sgRNAs remains uncharacterized. Despite these challenges, our work establishes an important foundation for refining inducible CRISPRa systems and contributes valuable insights toward achieving safe, controllable antiviral gene therapy.https://static.igem.org/peertube/streaming-playlists/hls/bc8e3458-5792-408e-8df1-fe6328671908/7bc5c484-ad9c-457c-a593-c91dd0e4160b-master.m3u8https://video.igem.org/videos/embed/phs9DEQiyitH82AGx1evzj1551062025-11-06T18:15:02.140ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3hQqf3xTxnyaH9Rjj8fSRvhttps://video.igem.org/lazy-static/thumbnails/777fd450-ae7a-4c99-a953-aef96f31fb72.jpgHeidelberg: Judging SessionWe present PHOENICS, a modular signaling platform that uses phosphorylation logic to enable programmable, ligand-specific cancer therapies. Combining synthetic GPCR and MESA receptors with kinase/phosphatase computation and tunable expression or secretion outputs, PHOENICS provides rapid, reversible, and retargetable control of therapeutic activity. Supported by the in silico optimization platform SPARC, it offers flexible adaptation to distinct tumor microenvironments and therapeutic effectors. Beyond the bench, we built an educational innovation ecosystem that equips future pioneers with the network and knowledge to navigate the challenges of translational research. Uniting innovation and education, PHOENICS drives modular precision oncology and empowers future translational innovators.https://static.igem.org/peertube/streaming-playlists/hls/128c042a-7576-4751-9f21-046fa749641f/8557128f-5329-4aec-894f-7c895bcf13e0-master.m3u8https://video.igem.org/videos/embed/3hQqf3xTxnyaH9Rjj8fSRv15595382025-11-06T18:15:02.693ZYES2025 Judging SessionsNOhttps://video.igem.org/w/x1DkT5NucZnGZ8N5Qcafa9https://video.igem.org/lazy-static/thumbnails/f975280c-a409-455e-a06c-2638a213b3c8.jpgHIA-Taiwan: Judging SessionAntimicrobial resistance (AMR) is a critical global threat, causing 1.27 million deaths annually and projected to reach 10 million per year by 2050. To address β-lactamase–mediated resistance, PlasMission engineered a conjugative microbial system that transfers a plasmid encoding Beta-Lactamase Inhibitory Protein (BLIP) between bacteria. BLIP binds to β-lactamase enzymes, restoring bacterial sensitivity to β-lactam antibiotics. Using E. coli S17-1 as the donor, our system successfully delivered BLIP-I and BLIP-II plasmids into E. coli DH5α, causing ampicillin-resistant recipients to lose viability under antibiotic selection. We envision expanding this system into a conditional survival circuit with inducible BLIP expression, enhancing biosafety and enabling applications in biocontainment, therapeutic bacteria, and biosensing. Ultimately, our S17-1_BLIP system serves as a promising synthetic biology tool for re-sensitizing resistant bacteria, supporting rapid resistance detection, and contributing to safer, programmable antimicrobial interventions. https://static.igem.org/peertube/streaming-playlists/hls/fb224fcf-83e6-438a-b6ee-d628961a2822/35c05ba6-658d-4f95-9d98-93ea1070ef53-master.m3u8https://video.igem.org/videos/embed/x1DkT5NucZnGZ8N5Qcafa91540072025-11-06T18:15:09.491ZYES2025 Judging SessionsNOhttps://video.igem.org/w/c5FZed2B9TYRKWdMfBCbUKhttps://video.igem.org/lazy-static/thumbnails/b6c2862c-4a68-4e17-9e78-5efe017c8211.jpgUCalgary: Judging SessionThe standard methods for detection of viruses in samples are expensive, time-consuming, and require access to specialized equipment. To address this problem, we aimed to design a point-of-care oligonucleotide sensor in the form of a capillary tube. This article discusses a proof-of-concept for this system as well as a modular phagemid system for us, and future iGEM teams, to safely validate viral-detection systems without the need to use pathogenic viruses.https://static.igem.org/peertube/streaming-playlists/hls/59bc249c-4c12-4c85-9edf-d3511b27142b/9b2543a8-c21f-4708-b79b-daf0435dd135-master.m3u8https://video.igem.org/videos/embed/c5FZed2B9TYRKWdMfBCbUK1571052025-11-06T18:15:11.313ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5zxZ6My5JcuYAk2xQLNQ3zhttps://video.igem.org/lazy-static/thumbnails/9601383d-7945-413a-908c-75e62b06f6b0.jpgMarburg: Judging SessionWe present NRPieceS, a versatile synthetic biology platform for rapid generation of large non-ribosomal peptide (NRP) libraries with minimal cloning effort. By integrating advanced NRPS engineering techniques, NRPieceS enables efficient combinatorial biosynthesis of potential bioactive peptides. The platform encompasses a complete Design-Build-Test-Learn workflow, including heterologous expression, derivatization, activity screening, and computational guidance through our software mATChmaker. The accompanying plasmid collection (160 plasmids, including 35 donor constructs) facilitates modular NRPS assembly and rational engineering. mATChmaker models and visualizes native and hybrid NRPS condensation complexes, providing structural and phylogenetic insights to guide module compatibility and design. Using NRPieceS, we generated and screened peptide libraries against ESKAPE pathogens, identifying antimicrobial hits. Furthermore, a Trojan horse strategy employing siderophore conjugation via click chemistry might enhance bacterial uptake. NRPieceS unites wet-lab and computational tools in a sustainable framework, accelerating antibiotic discovery and enabling accessible NRPS engineering for the broader research community.https://static.igem.org/peertube/streaming-playlists/hls/2513cf68-4ada-4179-b9f0-ce810f72da85/ad511a0d-1d62-4a5e-a5a0-eba3ed1be1d9-master.m3u8https://video.igem.org/videos/embed/5zxZ6My5JcuYAk2xQLNQ3z15100102025-11-06T18:15:20.019ZYES2025 Judging SessionsNOhttps://video.igem.org/w/hWAv44y5j7h2irAEr3b91Zhttps://video.igem.org/lazy-static/thumbnails/0b978be8-6387-4598-81a8-5a915ad2dcdd.jpgULaval: Judging SessionAntimicrobial resistance is currently a major global health crisis. To counter this issue, alternatives to antibiotics must be developed. One promising strategy involves the use of siderophores, iron-chelating molecules naturally synthesized by bacteria. We aimed to hack this system by adding a gold nanoparticle to one of Klebsiella pneumoniae’s siderophores, aerobactin. These nanoparticles can then be activated with NIR lasers to kill bacteria. Our team focused on cloning aerobactin in Escherichia coli. We also performed in silico analyses to optimize aerobactin biosynthesis and deepen our understanding of the siderophore’s internalization by K. pneumoniae. A genome-scale metabolic analysis of aerobactin’s citrate production, along with biomolecular modeling of the TonB-dependent transporter embedded in the gram-negative bacterial membrane, was conducted. The next steps of this project would involve the synthesis of gold nanoparticles followed by their conjugation with aerobactin. https://static.igem.org/peertube/streaming-playlists/hls/8931a4e2-7f0d-4329-b38f-79c9b35daf29/f13a1890-b3be-48a7-8d80-959224b784d8-master.m3u8https://video.igem.org/videos/embed/hWAv44y5j7h2irAEr3b91Z1529022025-11-06T18:15:28.258ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8ikfKBTwrLKUduQSE13AL8https://video.igem.org/lazy-static/thumbnails/3c09d986-a862-4be7-81f5-c78009eb10fa.jpgGreatBay-SCIE: Judging SessionAccounting for up to 20% of all respiratory allergy cases in humid areas, reaching a pervalence of around 30% in many countries around the world, indoors mold problem comprises one of the most serious threat to public health. To tackle this risk, GreatBay-SCIE 2025 devised a brand new mold killer, ArMOLDgeddon. Harnessing the antifungal properties of enzymes chitinase, glucanase, lysozyme and monoterpenoid geraniol, ArMOLDgeddon provides a safe and effective alternative to current mold removers. Chitinase and glucanase degrade critical structural polymers of the mold cell wall, while lysozyme magnifies the damage through cationic interaction with the cell wall components and disruption of fungal membranes. Geraniol, apart from furthering the attack on fungal membrane, provides a pleasant fragrance. Furthermore, with the help of artificial intelligence and strong carbohydrate binding domains, ArMOLDgeddon evolves and improves, expediting towards the goal of the annihilation of mold-related diseases, and eradicating this pervasive global health threat.https://static.igem.org/peertube/streaming-playlists/hls/3b1b7b0a-0ba3-47ae-be1e-66fe7684df57/ab2f99c7-217a-4e35-8579-34fabce25aa4-master.m3u8https://video.igem.org/videos/embed/8ikfKBTwrLKUduQSE13AL816470452025-11-06T18:15:51.831ZYES2025 Judging SessionsNOhttps://video.igem.org/w/d9oiiEJ3Rh8EX11m3MEFsXhttps://video.igem.org/lazy-static/thumbnails/1d111e77-f1be-45ec-be29-472354a96bfb.jpgNCKU-Tainan: Judging SessionByeFilm is a synthetic biology system using engineered *E. coli* to secrete Dispersin B, Proteinase K, and DNase I, degrading biofilm polysaccharides, proteins, and eDNA to enhance antibiotic action. A λcI857 thermal lysis switch triggers enzyme release at ≥37 °C, ensuring localized activity and biosafety. This approach offers a minimally invasive treatment for prosthetic joint infections and shows potential against other biofilm-related conditions such as catheter infections, chronic wounds, and dental plaque.https://static.igem.org/peertube/streaming-playlists/hls/62595b1e-34cd-4198-b901-7320e913c297/f5fcc6c1-3360-4beb-bec1-4f978b12a0ef-master.m3u8https://video.igem.org/videos/embed/d9oiiEJ3Rh8EX11m3MEFsX1478042025-11-06T18:15:55.357ZYES2025 Judging SessionsNOhttps://video.igem.org/w/568Yn1EVs1cstNtVcbyLpxhttps://video.igem.org/lazy-static/thumbnails/336c5bb3-9d47-45c1-8be5-86fde8cc4e9a.jpgIZJU-China: Judging SessionThe escalating crisis of transmissible antimicrobial-resistant bacterial infections demands innovative therapeutic approaches that move beyond traditional antibiotics. In response, our team presented the concept of FoCas, a novel platform engineered to directly address the dual challenges of drug resistance and infectivity. FoCas leverages a two-component system: the CRISPR-Cas9 gene-editing system for precise genetic targeting and cleavage, and a DNA origami nanostructure as a smart delivery and targeting vehicle. The DNA origami is programmed to recruit and protect the sgRNA/Cas9 complex, selectively bind to specific pathogen (e.g. MRSA), efficiently enter the cell with subsequent CRISPR-Cas9 activation to precisely cleaves and disables the gene responsible for antibiotic resistance (e.g. mecA). By combining precise genetic disruption with targeted delivery, FoCas may possess great potential as a candidate for future antimicrobial therapy, holding immense promise for dealing with superbug infections.https://static.igem.org/peertube/streaming-playlists/hls/211c2fae-f8db-4689-935b-29a09ad52fc5/33cbf84c-ed76-42b3-9ba4-155fa0f013c3-master.m3u8https://video.igem.org/videos/embed/568Yn1EVs1cstNtVcbyLpx14690362025-11-06T18:16:02.673ZYES2025 Judging SessionsNOhttps://video.igem.org/w/c8mBGFy6SunmwDX2Dwj7hUhttps://video.igem.org/lazy-static/thumbnails/b37a8dcd-0cc0-4df6-9225-ad7a292b6ffd.jpgTU-Delft: Judging SessionSnaccine is a novel type of vaccine, ideal for vaccinating chickens against avian influenza (bird flu). Genetically modified bacteriophages are taken orally, in a stomach acid-resistant pill. They reproduce inside gut bacteria, while also producing RNA packaged within armour (an MS2 virus-like particle coated with cell-penetrating peptides). This RNA enters (eukaryotic) host cells and works just like an mRNA vaccine, tricking the cell into producing an antigen. This antigen is detected by the immune system and teaches it to recognise and fight the original pathogen. Snaccines share many of the same advantages that mRNA technology has over traditional vaccines. But where typical mRNA vaccines have to be kept in freezers, Snaccines can be stored and transported at room temperature. Together with their cheaper production and oral administration route, Snaccine is an ideal technology for fighting bird flu.https://static.igem.org/peertube/streaming-playlists/hls/5a1b6fb9-cc4b-4232-bed2-1cee8f47a23c/740da070-4573-4bea-a169-cb83a7f28045-master.m3u8https://video.igem.org/videos/embed/c8mBGFy6SunmwDX2Dwj7hU1536022025-11-06T18:16:05.599ZYES2025 Judging SessionsNOhttps://video.igem.org/w/w1jJkwaffsU7tGkofVSyZ8https://video.igem.org/lazy-static/thumbnails/ecbc8420-9049-460d-9394-f2058b736ca8.jpgKyoto: Judging SessionOur project aims to construct a novel defense system against avian influenza viruses that currently threaten global food security, utilizing synthetic biology as our primary approach. Rather than developing orthodox defense systems such as drugs or vaccines that inhabit viral entry into cells or viral replication, we are developing an innovative mechanism that prevents viral amplification within animal hosts by "actively inducing apoptosis in cells infected with influenza virus." Our ultimate goal is to suppress highly pathogenic avian influenza(HPAI) pandemics, thereby making significant contributions to improving food security issues and maintaining public health. https://static.igem.org/peertube/streaming-playlists/hls/f2fdb3d9-607a-4f4e-a479-1cebd4a39f51/4930ac56-3166-4872-8deb-aa28aaa76da4-master.m3u8https://video.igem.org/videos/embed/w1jJkwaffsU7tGkofVSyZ81583032025-11-06T18:16:09.091ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6M5H4g1U6JFyxe5tBBWreGhttps://video.igem.org/lazy-static/thumbnails/66b61429-d2f9-4ad4-b7ac-a639ddf68510.jpgIIT-ROORKEE: Judging SessionThis project addresses antimicrobial resistance in Mycobacterium tuberculosis through the in silico design of a novel therapeutic combining lytic mycobacteriophage D29 with a computationally engineered antimicrobial peptide (AMP). Using an AI-driven pipeline, over 40 candidate peptides were generated and screened via machine learning for high antimycobacterial activity and low host toxicity. Initial targets of intracellular proteins were abandoned after molecular dynamics simulations showed poor peptide stability. The focus shifted to designing membrane-active AMPs with enhanced structural robustness. Final simulations confirmed the lead AMP’s stability in solution and its ability to disrupt a model bacterial membrane. This AMP was then conceptually integrated into a donor cassette for insertion into the D29 genome. The result is a synthesis-ready, computationally validated blueprint for a therapeutic phage, with a clear plan for experimental validation in Mycobacterium smegmatis* a safe surrogate host. This work lays the foundation for a novel, precision-engineered biotherapeutic against drug-resistant tuberculosis. https://static.igem.org/peertube/streaming-playlists/hls/2ec91074-53dd-4346-ac5b-37e7f13a0bde/284e7e70-b57d-4913-b5ae-ada332eb36fb-master.m3u8https://video.igem.org/videos/embed/6M5H4g1U6JFyxe5tBBWreG1566062025-11-06T18:16:10.012ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4b7mKVPiHttf3p5WsFnuMphttps://video.igem.org/lazy-static/thumbnails/e1ee963c-d352-43da-84f9-acf45b68e603.jpgUlink-SZ: Judging SessionAs pet companionship becomes more common, zoonotic bacterial infections are an increasing health concern. Many current antibacterial products are irritating, ineffective, or may lead to bacterial resistance, making them unsuitable for daily use. Must we choose between closeness and safety? We believe not. Using synthetic biology, we engineered E. coli to efficiently produce optimized natural antimicrobial peptides. Based on this, we developed a gentle, safe, and broad-spectrum antibacterial spray for pets. Our project aims to inhibit common zoonotic pathogens while ensuring ecological safety and user convenience—helping pet families enjoy close companionship with confidence and peace of mind.https://static.igem.org/peertube/streaming-playlists/hls/19b4c599-07cf-492d-aed1-245fa3c635b1/dccb98de-57de-411e-8a36-7c4556b74e24-master.m3u8https://video.igem.org/videos/embed/4b7mKVPiHttf3p5WsFnuMp1578002025-11-06T18:16:15.976ZYES2025 Judging SessionsNOhttps://video.igem.org/w/evBqs8ueKMMyJKtoyp3X9bhttps://video.igem.org/lazy-static/thumbnails/b1f7ad55-17a0-404b-b7bc-79eca97f0334.jpgLambert-GA: Judging Session89,000 cases of Lyme disease were reported to the CDC in 2023, yet experts estimate that nearly half-a-million Americans are infected with Borrelia burgdorferi annually. This significant underdiagnosis is due to the rapid dissemination of the bacteria into tissue, causing current tests to rely on antibodies produced weeks post-infection. However, the outer surface protein, CspZ, persists in the bloodstream, allowing for early detection through LANCET. Our diagnostic workflow begins with proximity-dependent ligation to detect CspZ and produce DNA, which is then amplified by recombinase polymerase amplification. Cas12a targets this DNA, providing a user-friendly output through a lateral flow assay. Even with improved diagnosis, treatment continues to rely on antibiotics, contributing to antimicrobial resistance and failing to address post-treatment Lyme disease. LANCET offers a novel approach through a multiplexed CRISPR-interference system to silence critical genes, effectively killing the bacteria. Our initiative also includes community education, fostering proactive behaviors against Lyme.https://static.igem.org/peertube/streaming-playlists/hls/6d693383-49aa-44ac-9397-c22bf3f1d556/6fd1622b-2056-4faa-8e59-9a2bbfb69e16-master.m3u8https://video.igem.org/videos/embed/evBqs8ueKMMyJKtoyp3X9b15250292025-11-06T18:16:18.306ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8kvwzf185LWFANKSWWCrqxhttps://video.igem.org/lazy-static/thumbnails/bef8d92b-5689-4eb2-a6a0-bcf974a7699e.jpgUOttawa: Judging SessionArthropod-borne diseases (ABDs) such as malaria, dengue, and Zika cause over 1 billion infections and 700,000 deaths annually, with rising incidence due to urbanization and climate change. To address the limitations of existing repellents, we developed ARBOGuard: a synthetic biology platform that reprograms the skin commensal Staphylococcus epidermidis to reduce mosquito attraction. Using CRISPR-Cas9, we disrupted ldh to lower L-lactic acid production (a mosquito attractant) and introduced genes for geraniol biosynthesis (a natural repellent). To enable in-situ modification of S. epidermidis, we engineered Khosrow, a recently discovered lysogenic bacteriophage specific to S. epidermidis, to deliver both constructs. Multiple topical delivery formats incorporating phages into sprays, aerosols and creams were tested, demonstrating effective application across multiple user-friendly products. Ultimately, ARBOGuard demonstrates the feasibility of engineering the skin microbiome into a durable barrier that protects against ABDs, establishing a framework for longer-lasting, innovative topical repellents.https://static.igem.org/peertube/streaming-playlists/hls/3b694c8a-57ce-4a95-b687-89a10814f6d3/e8a094a4-16be-4568-a054-4e884eb7841f-master.m3u8https://video.igem.org/videos/embed/8kvwzf185LWFANKSWWCrqx1597032025-11-06T18:16:20.044ZYES2025 Judging SessionsNOhttps://video.igem.org/w/a2Z9uMKrsXw3m5ovZzfcp6https://video.igem.org/lazy-static/thumbnails/d41a3347-66c8-4b28-ab7b-c4636dd48a29.jpgRemedix - Monitoring and Remediation of Pharmaceutical Contamination in Water SourcesImproper disposal of pharmaceuticals and contamination from medical and agricultural sources have resulted in rising levels of pharmaceutical pollution across diverse environments. This project aims to develop integrated biosensor and bioremediator systems to detect and mitigate pharmaceutical contaminants. We designed cost‑effective biosensors using visible reporters in engineered Escherichia coli for the detection of compounds such as tetracycline and salicylate. Beyond detection, synthetic organisms were constructed to degrade these pollutants, enabling effective bioremediation. Furthermore, an AI‑assisted automated system was developed to bridge the gap between biotechnology research and practical applications, enhancing the accessibility, scalability, and real‑world impact of our work.https://static.igem.org/peertube/streaming-playlists/hls/492935a0-cf6b-4be4-9522-8e5998e1f3e7/35b0baca-bfa2-451e-a123-554169281d8e-master.m3u8https://video.igem.org/videos/embed/a2Z9uMKrsXw3m5ovZzfcp6593062025-11-06T18:16:21.348ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/sgvmmA49QiuywughP58grRhttps://video.igem.org/lazy-static/thumbnails/fa437a9e-96fd-40b2-a77d-9807f84a3457.jpgTAU-Israel: Judging SessionLung cancer is the leading cause of cancer-related deaths worldwide, and many patients still lack effective long-term treatment options. Oncoligo introduces a modular therapeutic platform that harnesses antisense oligonucleotides (ASOs) to selectively silence essential cancer genes within a synthetic-lethality framework, enabling the targeting of tumor-suppressor-driven and intracellular cancers. Our computational pipeline integrates molecular dynamics, machine learning, and algorithmic optimization to design all parts of the platform. We specifically design potent ASOs, which are conjugated to antibodies for targeted delivery. Within each antibody, tumor-associated epitopes stimulate immune activation and memory. Experimentally, our designed ASOs outperform commercial ones, showing superior knockdown at the mRNA, protein, and cellular levels. In parallel, we optimized antibody expression systems and developed a dedicated software tool that facilitates ASO design across diverse genes and organisms. By uniting synthetic biology, computation, and entrepreneurship, Oncoligo pioneers a versatile, scalable framework for precision oncology - redefining how we treat cancer.https://static.igem.org/peertube/streaming-playlists/hls/d4b7d991-5387-40dd-8a9a-de723f71e82f/0d614175-b2b3-464e-b6ee-6e16639977b3-master.m3u8https://video.igem.org/videos/embed/sgvmmA49QiuywughP58grR1555022025-11-06T18:16:30.003ZYES2025 Judging SessionsNOhttps://video.igem.org/w/xxQK4zBknFWmLiZtGwPBAVhttps://video.igem.org/lazy-static/thumbnails/6236207b-7ae4-409a-9b05-4037f6309ee2.jpgSCG Detoxification: A Solution for Transforming Waste Coffee Grounds into BiofertilizersThe spent coffee ground (SCG) holds significant potential for producing organic fertilizers. Residual caffeine, however, inhibits plant growth due to its phytotoxicity, substantially limiting the application of SCG in bio-fertilizer production. Conventional decaffeination methods suffer from high costs and environmental concerns. Here, we genetically engineered Escherichia coli (E. coli) by integrating genes involved in caffeine degradation, aiming to remove the residual caffeine from SGG during fermentation while producing valuable biofertilizers. Our project provides an eco-friendly and cost-effective solution for the recycling of SCG. The safety and scalability of the engineered E. coli ensure its broad applicability in agriculture, horticulture, and environmental protection.https://static.igem.org/peertube/streaming-playlists/hls/ff7d64d8-71a8-401f-a61e-673ad0de224d/d223e601-0456-40ee-8e6a-e155811622b7-master.m3u8https://video.igem.org/videos/embed/xxQK4zBknFWmLiZtGwPBAV572002025-11-06T18:17:31.572ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/ahZzubwmYvV5yQJ3HudrC7https://video.igem.org/lazy-static/thumbnails/3c9f2952-8ea8-47ab-b3e4-1062e576dd87.jpgStanford: Judging SessionMost cancer treatments, from chemotherapy to targeted inhibitors, act systemically, killing cancer cells but also damaging healthy ones. This is due to a central problem in oncology: few cancers have a single biomarker both unique and abundant enough to be safely used as a therapeutic trigger. Hepatocellular carcinoma (HCC), especially when driven by hepatitis B virus (HBV), exemplifies this challenge. Markers such as GPC3, AKR1B10, and RP11 are elevated in tumors but also appear in healthy tissues, making single-signal therapies inherently risky. LiRA overcomes this through a programmable intracellular RNA logic gate inspired by Boolean computation. Built on the RADAR technology, LiRA activates only when two biomarker transcripts are detected together within the same cell, ensuring precise activation. In HEK293T, LiRA sensors achieved up to 23-fold activation and demonstrated strict AND-gate behavior. By replacing reporters with a therapeutic output, LiRA allows for targeted treatment, paving the way for next-generation therapeutics.https://static.igem.org/peertube/streaming-playlists/hls/4b41a1ad-cc39-4a9a-ba36-adabd2a0ec72/fe097908-f64b-4e2b-921b-eaf9d7391ecb-master.m3u8https://video.igem.org/videos/embed/ahZzubwmYvV5yQJ3HudrC71461072025-11-06T18:18:43.574ZYES2025 Judging SessionsNOhttps://video.igem.org/w/daxBpAgnT5PeJTwP5AJa75https://video.igem.org/lazy-static/thumbnails/e03df4f0-1760-4ae8-a369-6f4dc5d57e40.jpgPyronix - The Next Generation of FirefightingWildfires present major global challenges, from CO2 emissions and ecosystem destruction to severe public health impacts. Current firefighting methods also carry significant drawbacks. Pyronix offers a new approach, harnessing synthetic biology to create a more sustainable solution. We engineered a hydrogel-based fire retardant assembled from components produced by microorganisms. The gel structure is composed of cellulose and chitosan. Silica nanoparticles and a fire-retardant protein are embedded in the gel to improve its fire resistance. To deploy the hydrogel, we developed an artificial intelligence equipped drone for safe and automated firefighting, supporting life-saving decisions made by the operators. We engineered yeast strains for enhanced chitosan production, bacterial cells building up silica nanoparticles, and expression systems to produce fire retardant proteins. We assembled the components into a gel-like structure to study its fire-retardant properties. Pyronix provides a solid foundation for developing sustainable firefighting methods from production to deployment.https://static.igem.org/peertube/streaming-playlists/hls/6282d6a7-309d-403a-8110-199ea37ff894/ad584d11-7d47-4476-b92f-2d5208e133c7-master.m3u8https://video.igem.org/videos/embed/daxBpAgnT5PeJTwP5AJa756480292025-11-06T18:18:48.877ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kgNpEvA54VZt64rP4MBPEFhttps://video.igem.org/lazy-static/thumbnails/90549783-ef16-4a30-98ad-db14444eaff5.jpgBloomBustersCyanobacteria are photosynthetic microorganisms that can form harmful algal blooms. These blooms can lower oxygen levels, resulting in mass wildlife mortality. Microcystis aeruginosa, a common bloom-forming species, also produces the hepatotoxin microcystin, which accumulates in the food chain and induces severe physiological effects. Through rounds of discussion with experts, we found that early detection of microcystin is critical for effective management but remains limited. Current methods are slow, inconsistent, expensive, and unable to distinguish toxic from other strains. BloomBusters introduces a novel detection method based on CRISPR-SHERLOCK: an RNA-based fluorescent biosensor targeting toxin biosynthesis genes in Microcystis. This system enables rapid, sensitive, and specific detection of toxin-producing cyanobacteria within hours, allowing timely interventions and improved water safety. We demonstrated detection in mcyE/B RNA targets from Microcystis, allowing detection and management of toxic blooms using synthetic biology approaches, protecting ecosystems and public health before it’s too late.https://static.igem.org/peertube/streaming-playlists/hls/9c12641a-e922-4acd-b3f3-88426ef707c7/cb867f66-81ab-4b5a-89b0-86245464282e-master.m3u8https://video.igem.org/videos/embed/kgNpEvA54VZt64rP4MBPEF413072025-11-06T18:20:06.188ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/e4owNSd7JRtmku1Jas7dwohttps://video.igem.org/lazy-static/thumbnails/1a0bee87-a26a-46b3-858a-66aee2b65515.jpgAn Overview to Team SPC’s Project: Optimised PETase, Optimised PET DegradationOur project is concerned with plastic pollution, specifically PET, in the oceans. Therefore, we have added the genes BaCBM2, CsgA alongside HotPETase into the pET29b+ plasmid of BL21 E. coli for better heat resistance alongside improved binding to PET and the curli fibers of E. coli. We collaborated with Tsinghua University on the project’s sustainability and cooperated with The University of Hong Kong for an eco tour at SWIMS. However, we faced hardships measuring the absorbance of the enzyme-containing solutions due to the spectrophotometer being on the fritz. Despite setbacks such as the self-prepared YESCA solution affecting the solutions’ absorbance, we proved that the plasmids have been successfully introduced into the E. coli cells through gel electrophoresis, proving the bacteria’s ability to digest plastic. Much of the experimental designs and executions were in large part due to the contribution of the student leaders, who dedicated themselves to enhance our project.https://static.igem.org/peertube/streaming-playlists/hls/69bfeb51-e7aa-454b-b7fd-19d9d9c7c042/8123a25f-52bf-4116-b9ae-ffcef60f91d8-master.m3u8https://video.igem.org/videos/embed/e4owNSd7JRtmku1Jas7dwo5870112025-11-06T18:20:46.291ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/gBowgB2U1fLXieidN2YRNThttps://video.igem.org/lazy-static/thumbnails/85f8aee2-5c1f-43c7-81d1-2fbd379c75a3.jpgSMBU: Judging Session254 million people are living with chronic HBV. Every thirty seconds, HBV silently takes one life. A vaccine exists, and it works. But what about people already living with HBV? For them, there is no cure. The reason lies in a molecular structure called cccDNA, it can persist for years in the nucleus and is untouched by immune responses or existing therapies. This persistence is what makes HBV so difficult to cure. But we’ve engineered a system to change that. Hepzero is a dual-CRISPR design that targets cccDNA. Two engineered guide RNAs pair through a kissing loop to bring two dCas proteins to key regulatory regions. These RNA–RNA interactions greatly increase the chance of precise, simultaneous binding, enabling safer repression of viral activity. In this way, we block HBV gene expression and replication without cutting DNA, leaving the host genome unharmed, aiming for a one‑time intervention rather than life‑long therapy.https://static.igem.org/peertube/streaming-playlists/hls/7e69fdcf-c394-4bf2-a978-bfe362977793/926c2765-80ec-44a4-8ac1-602971c45c80-master.m3u8https://video.igem.org/videos/embed/gBowgB2U1fLXieidN2YRNT1532002025-11-06T18:20:51.697ZYES2025 Judging SessionsNOhttps://video.igem.org/w/huvqjRz5aqz6oLdyZVXDUfhttps://video.igem.org/lazy-static/thumbnails/4c82073e-99b6-42e8-8beb-26f9c8b43dd3.jpgTongji-China: Judging SessionAs space pioneers take one step after another toward fulfilling our dream of exploring the cosmos, do we truly understand the conditions they face? Bland and monotonous food choices, unmet social and psychological needs... Perhaps, we can bring a taste of home to fill this void!​ Through an integrated “aquatic plant-crayfish” co-cultivation system, we aim to establish crayfish farming on Mars. Utilizing synthetic biology, we’ve also designed a system for recycling crayfish shells. First, by using Aspergillus niger and engineered E. coli capable of secreting protease, we can achieve demineralization and deproteinization of the shells. After purifying chitin, it can be used for in-situ material production. Finally, biological resources can be degraded into monosaccharides by chitinase-producing bacteria, feeding back into the food production system. Our ultimate goal is to serve steaming plates of spicy crayfish to astronauts, letting them savor a true taste of home in space.https://static.igem.org/peertube/streaming-playlists/hls/858d2ca9-ef0d-4878-8b67-87c262965f92/5302d66c-c719-4fdb-a049-a7abdf3137fb-master.m3u8https://video.igem.org/videos/embed/huvqjRz5aqz6oLdyZVXDUf1537042025-11-06T18:22:05.476ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sbSXVZZbEKfenwPtE7pmxJhttps://video.igem.org/lazy-static/thumbnails/92a00620-22de-4fe8-844c-b19d4b222ec6.jpgAFMU-China: Judging SessionThe AFMU-China 2025 team has developed SYNERGY, a synthetic Notch system (SynNotch)-based engineered macrophage therapy designed to address two critical challenges in liver cancer treatment: tumor antigen heterogeneity and the immunosuppressive tumor microenvironment. SYNERGY employs a team-developed anti-SLC17A2 single-chain variable fragment (scFv) as an INPUT module to specifically recognize the SLC17A2 protein on hepatocyte surfaces, enabling liver microenvironment-specific activation. Simultaneously, a P65-SIRPα shRNA bicistronic system serves as the OUTPUT module, reprogramming macrophages into an anti-tumor M1 phenotype while blocking the "don't eat me" signal, thereby synergistically enhancing therapeutic efficacy. To reduce costs, we further established an in vivo gene editing platform using lipid nanoparticles (LNP) for tumor-associated macrophage (TAM) reprogramming, offering a "single-injection" therapeutic strategy for liver cancer. This technology holds broad potential for applications in hepatitis, liver fibrosis, and other liver diseases, providing a novel avenue for precision liver cancer therapy.https://static.igem.org/peertube/streaming-playlists/hls/d4127363-e248-46e0-bbf2-de16de2eb5f8/ea307707-8a96-4119-862e-014069bb6085-master.m3u8https://video.igem.org/videos/embed/sbSXVZZbEKfenwPtE7pmxJ15690202025-11-06T18:22:45.412ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5DPxB6DjAPhSCy6BFuuAtrhttps://video.igem.org/lazy-static/thumbnails/13d054bd-75d0-4d66-84e4-bf370809990a.jpgICT-Mumbai: Judging SessionTo enable self-sufficient long-term space exploration, regenerative life-support systems must minimize reliance on Earth resupply. While oxygen and water are recycled on the ISS, sustainable nutrient and food production remain challenges. Our project, R.E.Y.N.A, pioneers cellular agriculture for in-situ protein generation from astronaut waste streams, contributing to a closed-loop bioregenerative system. We engineered Saccharomyces cerevisiae to convert urea-rich urine into single-cell protein by deleting the nitrogen catabolite repression regulator GAT1 and overexpressing GLN1 and GDH1, enhancing nitrogen assimilation and amino acid biosynthesis. To ensure resilience under Galactic Cosmic Radiation, we introduced RAD51 and the tardigrade-derived Dsup protein to improve DNA repair and oxidative damage resistance. Additionally, a polyvinyl alcohol–melanin bioreactor lining provides passive radioprotection. Together, these innovations enable a self-sustaining microbial protein production system that promotes regenerative nitrogen recycling and strengthens mission autonomy for deep-space habitation.https://static.igem.org/peertube/streaming-playlists/hls/25ac5fee-025a-4267-a909-37cbe070c9bf/38d0b38c-84c1-4e6c-a232-265f67d04aa7-master.m3u8https://video.igem.org/videos/embed/5DPxB6DjAPhSCy6BFuuAtr15470232025-11-06T18:23:09.626ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tTUWSkPfH9ht17B5ZPVAdmhttps://video.igem.org/lazy-static/thumbnails/43d45b0e-7f0b-4d28-aced-a035bed4449d.jpgBIT: Judging SessionColorectal cancer (CRC) is the third most common cancer and the second leading cause of cancer death globally. Despite advances in chemotherapy, targeted therapy, and immunotherapy, treatment remains limited by drug resistance and toxicity. This study presents the “CRC-killer in and out” integrated delivery kit, combining endogenous oral capsules with engineered bacteria and exogenous intelligent microneedle patches for comprehensive CRC therapy. The “in” module enhances intestinal targeting and bioavailability via peptide-mediated accumulation, while the “out” module employs minimally invasive microneedles with iontophoresis-enhanced transdermal delivery and responsive drug release. Together, they enable individualized administration, improved compliance, and non-professional usability. The dual-path system merges home-use convenience with scalable applicability, reducing medical burdens， which offer an innovative approach for CRC home-based and large-scale treatment.https://static.igem.org/peertube/streaming-playlists/hls/e1e64e22-f854-4ef8-b1d6-190c71d5dcec/06c6fc47-c0a2-4c1c-9a22-f9364996589a-master.m3u8https://video.igem.org/videos/embed/tTUWSkPfH9ht17B5ZPVAdm1520012025-11-06T18:23:59.088ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8sh5eyXTecCGLdir8ynnbBhttps://video.igem.org/lazy-static/thumbnails/89c94a75-dbdc-4155-9ae3-d7656c6e4364.jpgHongKong-UCCKE: Judging SessionInspired by the human impact of Hong Kong's bed bug crisis, our research identified significant barriers to treatment: high costs for residents and limited institutional support. This drove us to develop an accessible, preventative solution to empower communities. Our project investigates L-lactate as a chemoattractant for the preemptive detection of bed bug infestations, enabling early intervention and decontamination. To ensure a sustainable and low-cost supply of this attractant, we developed a microbial production platform by genetically modifying E. coli to synthesize L-lactate. This approach aims to bypass the financial and systemic hurdles that prevent effective bed bug control.https://static.igem.org/peertube/streaming-playlists/hls/3c5b36c7-39c2-4c18-b5d8-f64cdcf997c3/50f063af-2012-48fc-b3ad-a3b8588cfff5-master.m3u8https://video.igem.org/videos/embed/8sh5eyXTecCGLdir8ynnbB1166082025-11-06T18:24:51.462ZYES2025 Judging SessionsNOhttps://video.igem.org/w/wcKxPmorzmsKgrXfRFnZwahttps://video.igem.org/lazy-static/thumbnails/86dfda2c-a250-40fa-9969-ac79ace3fb54.jpgIITKharagpur: Judging SessionTRACER is a tunable cell-based sensor that detects CD19 and reports only when the signal is strong. Its core is a SynNotch receptor that, upon CD19 engagement, releases a transcription factor to activate a reporter. An intracellular inhibitor binds the transcription factor and blocks promoter access until its concentration surpasses a preset buffer, creating a built-in threshold that filters weak signals. Using a design-build-test-learn loop, we optimized promoter strength, DNA ratios, and inhibitor dose. Dry-lab models predicted SynNotch cleavage, inhibitor binding, and reporter output, guiding mid-range expression for stable control. Wet-lab assays in HEK293T cells confirmed contact-dependent activation and graded suppression with increasing inhibitor copy number. Fixing SynNotch:Reporter at 1:10 lowered baseline, and titrating the EF1α-driven inhibitor shifted activation predictably. TRACER enables adjustable sensitivity without redesigning the receptor, offering a compact, modular platform for robust CD19 detection adaptable to other outputs and formats.https://static.igem.org/peertube/streaming-playlists/hls/f4962dd4-6bdc-44bb-86db-270fc09f6e31/a0e377fa-1854-4fc2-a320-a8c760597773-master.m3u8https://video.igem.org/videos/embed/wcKxPmorzmsKgrXfRFnZwa1463082025-11-06T18:25:16.393ZYES2025 Judging SessionsNOhttps://video.igem.org/w/wJwXLiTUjLioytz9EWKoM6https://video.igem.org/lazy-static/thumbnails/304c82a0-9d88-495d-b69d-cd04203f6110.jpgSJTU-Software: Judging SessionCASPIA is an intelligent, fully automated platform that transforms raw genomic data into kinetics-aware genome-scale metabolic models (GEMs), serving as digital twins of cells. It integrates genome annotation, parameter prediction, model construction, and optimization in one pipeline. CASPIA comprises four engines: GEMFactory, assembling stoichiometric models with kinetic and thermodynamic constraints; CASPred, predicting missing parameters (kcat, Topt) via a geometric vector perceptron trained on ~90k records; CASPIAgent, a natural-language-driven agent executing modeling and design tasks; and CASPIA-RAG, extracting quantitative data from literature. CASPIA upgrades GEMs to enzyme-constrained models (ecGEMs), supports flux simulation and multi-scale optimization (FBA, PFBA, FVA, OptKnock, FSEOF), and enables deep mutational scanning. Validated on Saccharopolyspora spinosa, it autonomously designs gene knockouts, overexpression, and enzyme mutations. A public web server allows asynchronous task submission, making high-fidelity metabolic modeling widely accessible.https://static.igem.org/peertube/streaming-playlists/hls/f8e27a93-421b-4292-b1aa-f28c8fb84ea7/2662b58b-56cb-45f4-aae0-64cde8dc2649-master.m3u8https://video.igem.org/videos/embed/wJwXLiTUjLioytz9EWKoM61645022025-11-06T18:25:34.112ZYES2025 Judging SessionsNOhttps://video.igem.org/w/teaB8TVfdKHDQfbLJWzGfXhttps://video.igem.org/lazy-static/thumbnails/15d9fc98-12d2-49fe-b111-93e63e993082.jpgHK-PLKNPLC: Judging SessionSweet proteins offer a natural route to cutting added sugar. Monellin is a protein that is 90,000 times sweeter than sucrose but has limited use due to poor heat and pH stability. Our project aims to modify MNEI, a single-chain engineered variant of monellin, to create a thermostable sweetener that is applicable in real-world situations. An in silico protein design pipeline was developed for systematic design of thermostable MNEI variants. In brief, an exhaustive Rosetta point mutation scan was performed to assess all possible single and double mutations of MNEI. The resulting ΔΔG values were then used to rank mutations by predicting the folding free energy. Subsequently, molecular dynamics simulations were performed to assess the conformational stability of MNEI and its variants. The most stable variants were then cloned into pET-28a(+) and expressed in E. coli NiCo21(DE3) for future experimental validations.https://static.igem.org/peertube/streaming-playlists/hls/dc7d5526-046d-4cd8-8ae8-98a1b074d3cb/a20d660e-466c-4ac9-87c1-b2ff46a88cf2-master.m3u8https://video.igem.org/videos/embed/teaB8TVfdKHDQfbLJWzGfX1170042025-11-06T18:25:45.943ZYES2025 Judging SessionsNOhttps://video.igem.org/w/mSvkxjTg28b4ycsZsmWTKQhttps://video.igem.org/lazy-static/thumbnails/d0a00b1b-cca9-4493-8cd1-dd385098d6ec.jpgWLSA-ShanghaiAcademy: Judging SessionThe global epidemics of type 2 diabetes and obesity demand innovative, long-term solutions beyond traditional invasive and single-target therapies. We developed LEGO (Light-induced Expression of GLP-1 and Insulin), an optogenetic gene therapy platform that enables precise, reversible, and non-invasive control of dual-hormone secretion. Leveraging endogenous bioluminescence or a wireless light source, LEGO regulates the co-expression of insulin and bioactive GLP-1(7-37)—a clinically validated combination for managing hyperglycemia and obesity. Activation is achieved via oral administration of a luciferase substrate or through a wearable light device, eliminating the need for repeated injections. To enable personalized treatment, we created an open-source software–hardware package that converts patient data (e.g., glucose levels, weight, meal information) into programmable light stimulation for optimized hormone release. Designed with future implantable use in mind, LEGO offers a smart, patient-friendly, and sustainable therapeutic strategy for metabolic disease management.https://static.igem.org/peertube/streaming-playlists/hls/a9040a8c-7480-48b9-b720-5a3c0c37304a/d58c8ce0-ba6c-4ff1-a774-546b9c6f2a77-master.m3u8https://video.igem.org/videos/embed/mSvkxjTg28b4ycsZsmWTKQ15840152025-11-06T18:25:55.912ZYES2025 Judging SessionsNOhttps://video.igem.org/w/my8EKgdLNpEkKeb7pAVYU4https://video.igem.org/lazy-static/thumbnails/d39cbb91-b154-4d56-a60b-b73f08a80f6d.jpgCFLS: Judging SessionPolycyclic aromatic hydrocarbons (PAHs) are persistent organic pollutants in the urban environment, because of their hydrophobic and lipophilic character, PAHs is an easily enriched in sludge, which is by-product of sewage treatment and widely used in cultivated land . The accumulation of PAHs can pose huge threats to the water bodies. According to Guangzhou WWTP, the concentration of several PAHs in local effluent, even after wastewater treatment, still remained approximately 10 to 15 times above China’s acceptable risk levels. Due to the numerous drawbacks of the existing approaches, such as low efficiency and significant side effects, we come up with a more comprehensive solution to this problem: constructing an engineered E.coli which is integrated with plasmids containing diverse gene clusters, endowing it with higher degradation capability, enhanced environmental resistance, and safer switch control. The goal of the project is to provide a safer and more efficient mean of treating PAHs.https://static.igem.org/peertube/streaming-playlists/hls/a6734ca7-a298-41fd-b9fe-6b603f9c08f3/e7c9f2c4-edaa-4e36-bf5f-92ddc1686479-master.m3u8https://video.igem.org/videos/embed/my8EKgdLNpEkKeb7pAVYU41495022025-11-06T18:26:04.081ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sE5a4F5ZTAqj7fkx9Z7HgGhttps://video.igem.org/lazy-static/thumbnails/c96f9428-ff2b-4193-b510-a5f7d1d6d413.jpgUGA: Judging SessionPancreatic Ductal Adenocarcinoma (PDAC) is one of the deadliest cancers, with a five-year survival rate below 10%. Its silent progression and late diagnosis make early detection extremely difficult, leaving patients with limited therapeutic options. Addressing this major clinical challenge, ExoSPY introduces a novel theranostic approach that combines diagnosis and therapy in a single system. Our project uses engineered extracellular vesicles (EVs) produced from HEK293 cells and loaded with nanoparticles that enable both MRI-based detection and X-ray–activated treatment. These vesicles are designed to specifically recognize precancerous pancreatic cells, allowing precise and less invasive targeting. By detecting pancreatic cancer at its earliest stages and providing localized therapy, ExoSPY offers a promising new avenue to improve survival rates and revolutionize PDAC management through synthetic biology and nanotechnology.https://static.igem.org/peertube/streaming-playlists/hls/d7de6e07-f215-4d05-bbed-0540929aac12/d208a9e3-da08-47a9-b476-ad6554d7965c-master.m3u8https://video.igem.org/videos/embed/sE5a4F5ZTAqj7fkx9Z7HgG1540012025-11-06T18:26:38.074ZYES2025 Judging SessionsNOhttps://video.igem.org/w/x4zWx8gMiehyP92HEphxBWhttps://video.igem.org/lazy-static/thumbnails/cbd72874-8d3e-461c-afa5-698d12a21a14.jpgSubCat-Shanghai: Judging SessionCurrent treatments for Parkinson's Disease primarily rely on levodopa (L-DOPA), a dopamine precursor, to alleviate symptoms. However, traditional L-DOPA synthesis methods, including chemical methods and plant extraction, are inefficient and environmentally unsustainable. Microbial biosynthesis has emerged as a promising alternative, although its efficiency is limited by the conversion of chorismate to L-tyrosine. This study aimed to enhance L-DOPA production by optimizing the expression of the tyrA gene in Escherichia coli and screening different RBS. Furthermore, given that gastrointestinal symptoms are a common side effect of L-DOPA, constructing a probiotic strain capable of efficiently expressing L-DOPA could not only mitigate side effects by modulating the gut microbiome, but also achieve the goal of treating and alleviating Parkinson's symptoms through continuous drug release.https://static.igem.org/peertube/streaming-playlists/hls/fb8b723b-2034-4353-8c98-ab696dc92cf0/b0208c87-af6f-44ba-8cda-71690935c543-master.m3u8https://video.igem.org/videos/embed/x4zWx8gMiehyP92HEphxBW1532012025-11-06T18:27:16.191ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6Z28N5wSJfUPjtg3y6AUqbhttps://video.igem.org/lazy-static/thumbnails/6604b99c-91ae-4931-ae64-7b9bf48f41d6.jpgYK Pao: Judging SessionIron (Fe) and zinc (Zn) are essential trace elements for human health. However, iron and zinc deficiency is widespread worldwide, affecting approximately 2 billion people, this project intends to use the key amino acid sites at the C-terminus of AtNAS1 protein predicted in published literature to affect enzyme activity, and mutate the key sites of the full-length protein. After purifying the AtNAS1 mutant protein through prokaryotic expression in Escherichia coli, the enzyme activity mechanics analysis was performed. Compared with the wild-type AtNAS1 protein, and using the truncated AtNAS1 protein reported in the literature as a positive control for increased enzyme activity, the point mutation combination with stronger activity of the AtNAS1 full-length protein was screened for Bacillus subtilis expression vector construction, and the iron and zinc content in tobacco leaves and roots was measured after tobacco soil culture.https://static.igem.org/peertube/streaming-playlists/hls/3073c98b-3c44-4c7e-9570-9fe197f9b46a/01fb1cee-8919-4961-9f0a-ad6042df132f-master.m3u8https://video.igem.org/videos/embed/6Z28N5wSJfUPjtg3y6AUqb1570012025-11-06T18:27:20.882ZYES2025 Judging SessionsNOhttps://video.igem.org/w/urMdwAJrxLoLNTk2qgryWghttps://video.igem.org/lazy-static/thumbnails/555e7bdb-e2f6-4127-9e22-7fae43ead2f5.jpgXJU-China: Judging SessionThe SILK project (Stability-Integrated Industrialization Leveraging Key plasmids) addresses the critical challenge of environmental sensitivity in industrial fermentation by harnessing Xinjiang’s extremophilic microbial resources. Xinjiang's diverse environment has fostered highly tolerant bacterial communities, whose natural plasmids encode evolutionarily shaped stress-resistance mechanisms. By isolating and sequencing these plasmids, our team identifies functional gene elements—such as tolerance to extreme pH levels—to construct standardized expression modules for industrial strains. Integrating nature's evolutionary solutions into bioreactor frameworks, the SILK project aims to enhance fermentation stability, reduce energy consumption for environmental control, and expand the synthetic biology toolkit for extreme environments—transforming Xinjiang's “microbial silk” into industrial resilience.https://static.igem.org/peertube/streaming-playlists/hls/e6595792-3cc5-4d3a-8155-cd4ef5e41663/78a0ba97-899b-4179-abaf-feccfbda0412-master.m3u8https://video.igem.org/videos/embed/urMdwAJrxLoLNTk2qgryWg1454012025-11-06T18:27:30.415ZYES2025 Judging SessionsNOhttps://video.igem.org/w/s9gxwfoUsBpuZbfHABMAXQhttps://video.igem.org/lazy-static/thumbnails/0124bb07-aa45-47e5-8734-ed373ac3ddfd.jpgUAM: Judging SessionEnvenomation by venomous animals remains a global health concern, with scorpionism being particularly critical in Mexico, causing around 300,000 stings and around 1,400 deaths each year. Our project proposes an integrated three-system approach to address this issue. First, we aim to develop microbial production systems for recombinant antivenoms as sustainable and ethical alternatives to animal-derived ones. Second, we implement educational and social strategies to promote prevention and awareness within vulnerable communities. Third, we apply data modeling and optimization tools to improve healthcare logistics and accessibility in marginalized regions. Experimentally, we constructed an expression vector using the pPICZα backbone under AOX1 promoter control for expression in the Komagataella phaffii strain OPENPichia pep4 yps1. Alongside, our outreach and modeling efforts connect synthetic biology and community engagement, working toward a future where preventable deaths from scorpionism in Mexico are reduced as much as possible.https://static.igem.org/peertube/streaming-playlists/hls/d3b52263-3409-46cf-b313-552e1ee96c26/9bc90cf6-ce65-47cc-98fc-977d619512a4-master.m3u8https://video.igem.org/videos/embed/s9gxwfoUsBpuZbfHABMAXQ1409012025-11-06T18:27:32.975ZYES2025 Judging SessionsNOhttps://video.igem.org/w/2cAmm93pWLhB6i7AG9FoZ6https://video.igem.org/lazy-static/thumbnails/e324bd90-d8ab-4f46-90fa-bfc53ad893b3.jpgHDKWA: Judging SessionErythritol, as a natural sweetener, exhibits unique physicochemical properties—it avoids the aforementioned health hazards while offering additional benefits such as low caloric value, high stability, and no gastrointestinal discomfort. For erythritol production, chemical synthesis methods are economically unviable, leading to growing research focus on microbial biosynthesis. Current studies primarily aim to improve erythritol yield and production efficiency. Addressing this challenge, our work first enhances and integrates the erythritol biosynthesis pathway in bacteria through molecular biology techniques. Additionally, we introduce a glycerol metabolic pathway, which serves dual purposes: reducing byproduct formation and expanding the utilization of low-cost substrates by redirecting carbon flux toward erythritol production. Glycerol, an abundant and low-value renewable resource, has recently gained attention as a promising substrate for erythritol fermentation. This study explores its potential to enable cost-effective and sustainable erythritol biosynthesis.https://static.igem.org/peertube/streaming-playlists/hls/09b77d54-8c2d-47c0-bbff-a9fdeea0661f/c743a18f-5905-4931-9462-7a9e1ae2181d-master.m3u8https://video.igem.org/videos/embed/2cAmm93pWLhB6i7AG9FoZ61565062025-11-06T18:27:46.170ZYES2025 Judging SessionsNOhttps://video.igem.org/w/2GN9sxYRYK16NWfBue2Wh7https://video.igem.org/lazy-static/thumbnails/982fcb5b-6173-4596-8918-7b7d58cfdf88.jpgUppsalaUniversity: Judging SessionThis project aimed to engineer a self-flocculating strain of Chlamydomonas reinhardtii to enable cost-effective, chemical-free algae harvesting by expressing the bacterial adhesion pair Z17/Z18 and the yeast flocculation protein FLO1 under a salt-inducible promoter. Throughout the project, E. coli and C. reinhardtii were used as model organisms to evaluate different flocculation systems, including FLO1, Z17/Z18, and the endogenous adhesion pair FUS1/MAR1. Although the FLO1 construct assembly was hindered by repetitive sequence regions, the Z17 protein was successfully expressed and purified in E. coli. Expression of Z18 and cloning of the GP1 anchoring protein were not achieved due to sequence complexity. In parallel, electroporation parameters for C. reinhardtii transformation were optimized, and a flocculation assay was established to assess aggregation efficiency, providing a foundation for future development of auto-flocculating microalgae strains for sustainable biotechnology.https://static.igem.org/peertube/streaming-playlists/hls/0dcb53ec-f3ca-4ffc-a975-4064b82afe76/60fb49f7-4aac-4639-9edb-f1bfe9394257-master.m3u8https://video.igem.org/videos/embed/2GN9sxYRYK16NWfBue2Wh71243032025-11-06T18:27:52.706ZYES2025 Judging SessionsNOhttps://video.igem.org/w/h8n2qFsQEmxZo4LZCMaXeehttps://video.igem.org/lazy-static/thumbnails/43d44dfc-6d91-4a48-ae0d-fcc31f3e06d3.jpgKorea-CX: Judging SessionMultiple myeloma progression is driven by genetic alterations; RAS-pathway mutations (e.g., NRAS^G12D) increase proliferation and motility. Conventional 2D cultures miss these behaviors, and animal models are slow, costly, and ethically constrained. We engineered NIH3T3 cells expressing control, NRAS^WT, or NRAS^G12D with an mCherry reporter for direct visualization and genotype validation. Using a PDMS lab-on-a-chip that mimics a bone-marrow-like matrix, we quantified growth (CCK-8) and migration (scratch wound healing vs on-chip Matrigel infiltration). NRAS^G12D accelerated wound closure and enhanced 3D invasion. Treatment with the MEK inhibitor U0126 produced mutation-dependent growth suppression, confirming pathway involvement. Overall, this reproducible 3D chip links genotype to pharmacologic response in a tissue-like context, offering a scalable route to reduce animal use and to speed evaluation of AI-nominated compounds and future co-cultures with stromal or endothelial cells for both mechanism and screening.https://static.igem.org/peertube/streaming-playlists/hls/829961be-102e-48fa-8a22-1d2dcc0e24b3/0dcb0a1b-95c0-47e2-a258-420921c2ad51-master.m3u8https://video.igem.org/videos/embed/h8n2qFsQEmxZo4LZCMaXee1529042025-11-06T18:27:57.374ZYES2025 Judging SessionsNOhttps://video.igem.org/w/mWiK3YdcstVUSiG3LMCeb6https://video.igem.org/lazy-static/thumbnails/1c17c901-258a-45bf-8c4a-40566c30cec8.jpgIISER-Berhampur: Judging SessionToxic metal contamination in drinking water disproportionately affects rural and industrial communities exposed to mercury, aluminum, iron, and hexavalent chromium. Conventional remediation methods are energy-intensive and often inaccessible. POSEIDON (Phytoprotein-Optimized System for Environmental Ion Detoxification) offers a synthetic biology solution, using metal-binding peptides for selective ion removal. Phytochelatin synthase (PCS) and engineered metallothionein (MT) are expressed in safe E. coli, purified, and immobilized onto biodegradable alginate hydrogel beads via EDC/NHS chemistry. Packed into modular cartridges, these reusable, gravity-operated units are optimized through modeling for efficient mixed-metal removal. POSEIDON promotes sustainability, local fabrication, and modularity while supporting SDGs 3, 6, 8, 9, 11, 14, 15, and 17.https://static.igem.org/peertube/streaming-playlists/hls/a98bdeef-2f8d-490a-9537-307f262b3b8d/b50b4697-6b32-4d80-80cd-95d6427e4067-master.m3u8https://video.igem.org/videos/embed/mWiK3YdcstVUSiG3LMCeb612920132025-11-06T18:28:03.110ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ryYYj33koUXrx3J6Wt7sSihttps://video.igem.org/lazy-static/thumbnails/ea8dd8b3-73a3-4cce-a322-2955b4dc8f17.jpgAachen: Judging SessionWith our project NCLOSE, we are tackling the growing global challenge of nitrate pollution. Agriculture is one of the main drivers: synthetic fertilizers and animal manure release large amounts of ammonium, which soil microbes convert to nitrate. NCLOSE aims to counteract this by producing γ-polyglutamic acid (PGA), a natural polymer capable of reversibly binding ammonium, directly in manure. This reduces nitrate leaching while providing crops with a slow-release nutrient source. We introduced three genes encoding PGA synthetase into Clostridium cellulovorans, an anaerobic, cellulolytic bacterium, well-equipped for growth in manure. Additionally, we created resources to make this chassis more accessible for future teams, including adapted workflows, a genome-scale model and a taxonomic analysis. The development of a solid biosafety concept was also a central aspect. Through integrated human practices, we ensured NCLOSE remains safe, sustainable and socially responsible, turning manure from part of the problem into part of the solution.https://static.igem.org/peertube/streaming-playlists/hls/cf0f606e-d313-4bd6-b063-c15c0306eaad/0e43447d-57ca-43c8-a980-72a6cc22b48b-master.m3u8https://video.igem.org/videos/embed/ryYYj33koUXrx3J6Wt7sSi13620122025-11-06T18:28:28.364ZYES2025 Judging SessionsNOhttps://video.igem.org/w/jPT14myTHSBKSDzPZXpU6rhttps://video.igem.org/lazy-static/thumbnails/ab45f6e6-f059-4af7-8161-711ff35448ed.jpgJilin-AI: Judging SessionWe introduce BiomniGEM, a large language model (LLM) specifically designed for multi-omics data understanding and biological reasoning, which integrates three omics modalities (DNA / cell profile/protein) and explicitly embeds omics information during joint training, enabling the model to directly read and reason over biological data. Our text builds upon prior ideas of transforming single-cell profiles into “cell sentences” and complements sequence-level foundation models in genomics and proteomics. The SynBioCoT dataset spans cell profiles, DNA, and protein modalities and covers five categories of omics tasks, aiming to systematically teach both omics understanding and biological reasoning. Experimental results show that BiomniGEM consistently outperforms leading commercial and open-source models in understanding raw omics data and demonstrates superior reasoning performance, achieving the best results on our benchmark tasks.https://static.igem.org/peertube/streaming-playlists/hls/9873e230-672e-4c29-900e-00d1101ee273/25ad7390-6e95-46a0-8e21-28a7dd437b5e-master.m3u8https://video.igem.org/videos/embed/jPT14myTHSBKSDzPZXpU6r1497012025-11-06T18:28:33.430ZYES2025 Judging SessionsNOhttps://video.igem.org/w/63mgXiCJRpQeoQFPSepC5vhttps://video.igem.org/lazy-static/thumbnails/0468f9c0-6981-48f0-98ab-0f94aa0d8907.jpgUOregon: Judging SessionThe University of Oregon iGEM 2025 team introduces REDAPT, a novel therapeutic platform that uses retrons to synthesize therapeutic DNA aptamers in-vivo to mitigate gut inflammation in Mast Cell Activation Disorders (MCAD). The project involves three engineering goals. First, a histamine-sensing circuit regulates aptamer secretion using a characterized histamine riboswitch in a cell lysis system. Second, retrons are engineered to reverse transcribe ssDNA aptamers inside bacterial cells; a fluorescent aptamer expressed within a modular Eco-2 retron cassette serves as proof of concept. Third, a histidine permease from Pseudomonas putida is expressed to transport histamine into cells, triggering aptamer release. Together, these components allow engineered bacteria to accumulate and secrete ssDNA aptamers in response to high levels of histamine. With further refinement, REDAPT could be used to deliver therapeutic aptamers such as X35 in situ in the gastrointestinal tract.https://static.igem.org/peertube/streaming-playlists/hls/28d1ad00-9337-4f1d-b38e-6541d82ba5fd/b9838976-f234-4253-bc54-524206a01697-master.m3u8https://video.igem.org/videos/embed/63mgXiCJRpQeoQFPSepC5v1385042025-11-06T18:28:34.876ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4B7V4wLXYPtCferFcpP71thttps://video.igem.org/lazy-static/thumbnails/ffc2ef9f-af67-4c3e-b800-ddc5634cbfc4.jpgXJTLU-Science-China: Judging SessionTriple-negative breast cancer (TNBC) is the most aggressive subtype, with rapid progression, poor prognosis, and no effective targeted therapies, highlighting urgent need for new strategies. Building on Prof. Shang Cai’s work on intracellular commensal bacteria—especially the tumor-targeting potential of Staphylococcus—we developed TroGen, an intracellular delivery platform using engineered commensals. To enhance invasion, we introduced the `fnbA` gene into non-pathogenic Staphylococcus to express S. aureus FnBPA, exploiting integrin-mediated endocytosis for efficient TNBC entry. Two biosafety modules confine bacterial survival and therapeutic payload expression to the tumor microenvironment. Using AlphaFold-Multimer, MD, MM/PBSA, and phylogenetic analysis, we selected the optimal FnBP from multiple candidates. We formulated a reaction–diffusion–convection coupled PDE and used COMSOL Multiphysics to simulate intratumoral bacterial diffusion. Human Practices informed iterative design, and outreach activities fostered scientific curiosity.https://static.igem.org/peertube/streaming-playlists/hls/1d32b598-2ae7-4a1a-a2cb-ac502dd961db/dfa97109-18c4-4505-9f89-9a64d55b6aff-master.m3u8https://video.igem.org/videos/embed/4B7V4wLXYPtCferFcpP71t15140242025-11-06T18:29:08.273ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4hAMiSQu8qsVhQ3ELFuvHphttps://video.igem.org/lazy-static/thumbnails/73c19ce2-1b4e-4562-bf2f-8953f943234c.jpgWaterloo: Judging SessionCatheter associated urinary tract infections (CAUTIs) are the most common hospital infection, disproportionately affecting vulnerable populations such as those in long-term care homes or the critically ill. While the standard treatments for these infections rely primarily on antibiotics, the increasing prevalence of antimicrobial resistant infections demands for an alternative solution. To combat this issue, we have developed HydroGuard, a biocompatible, infection-responsive hydrogel with controlled phage release. Our hydrogel, made up of gelatin methacryloyl, degrades in the presence of gelatinase (gelE), a protein naturally produced by E.faecalis during infection. The degradation of gelatin in the hydrogel releases the embedded phage cocktail, which targets and eradicates the biofilm. Using a combined wet-lab and computational approach, our work demonstrates the viability of this solution by incorporating the gelE gene into E.coli for lab-safe proof of concept solution.https://static.igem.org/peertube/streaming-playlists/hls/1a9cc03f-0097-469b-8ef1-1baca1b02e45/5f291fa6-835b-457d-93e4-ab8a77b94ed4-master.m3u8https://video.igem.org/videos/embed/4hAMiSQu8qsVhQ3ELFuvHp1507012025-11-06T18:29:39.841ZYES2025 Judging SessionsNOhttps://video.igem.org/w/goBpsusEvRgQwLpvdzjULWhttps://video.igem.org/lazy-static/thumbnails/5d0878bd-ef05-40ae-8f1b-a4a09665d802.jpgSaltLakeCommColl11: Judging SessionThe project proposes using the commensal gut microbiome to enhance antioxidative defense through glutathione production. Glutathione, naturally produced in most mammalian cells and some bacteria, is essential for neutralizing reactive oxygen and nitrogen species (ROS/RNS). However, chronic pollutant exposure can overwhelm this system, contributing to physical and psychological health issues. Three Lactobacillus strains (L. plantarum, L. reuteri, and L. rhamnosus) will be engineered to sense oxidative stress and produce glutathione to neutralize ROS/RNS. Transformation will use plasmids carrying an oxyR transcription factor, a trxC promoter, and a gshF gene. Modified colonies will be screened via ROS exposure assays to confirm plasmid uptake. Successfully modified strains may be delivered through probiotic foods such as yogurt or kombucha. By strengthening the gut’s antioxidative capacity, this project aims to mitigate the adverse health effects of chronic air pollution exposure and improve overall resilience in both sensitive and general populations.https://static.igem.org/peertube/streaming-playlists/hls/7ca142f7-c064-444d-ad0e-eb2177b6859e/cf81c07d-54ac-408b-9a7f-3ae428a9f206-master.m3u8https://video.igem.org/videos/embed/goBpsusEvRgQwLpvdzjULW1388012025-11-06T18:29:46.273ZYES2025 Judging SessionsNOhttps://video.igem.org/w/9YN5tbUsnPq2xTk2SVnApJhttps://video.igem.org/lazy-static/thumbnails/3926e649-c7d6-4941-9c3b-9b2682629887.jpgScience Tokyo: Judging SessionWe developed Xylego, an engineered E. coli Nissle 1917 designed as a low-burden synbiotic therapy for Inflammatory Bowel Disease (IBD). Xylego integrates three key modules: (1) Colonization support – enables selective growth using xylitol, reducing administration frequency; (2) Mucosal healing – secretes epidermal growth factor (EGF) to promote epithelial repair and break the inflammatory cycle; and (3) Inflammation-dependent kill switch – a tetrathionate-sensing restriction–modification system that self-destructs after inflammation resolves, preventing long-term risks and antibiotic gene transfer. Xylego is expected to enhance remission rates, improve adherence, and provide a safe, adaptable platform for patient-tailored probiotic therapies.https://static.igem.org/peertube/streaming-playlists/hls/48b72809-22a1-4ab8-810b-b2a0b97e31c0/aadbd0e5-15eb-44db-acca-fc894d5c1f71-master.m3u8https://video.igem.org/videos/embed/9YN5tbUsnPq2xTk2SVnApJ1469032025-11-06T18:30:46.814ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cYjeNcA5eyB2Ec2ZwN7i6nhttps://video.igem.org/lazy-static/thumbnails/3d163fa1-c27d-461f-8324-3cb34ccbbde6.jpgHPI-Potsdam: Judging SessionAI models are transforming biology by capturing complex patterns in DNA sequences. However, realizing their full potential requires both high-quality training data and user-friendly tools for scientists. The iGEM Registry contains the largest collection of synthetic biology parts, but inconsistent annotations and limited search functionality make it difficult to use directly for AI training or for everyday part discovery. Our project addresses these challenges by adapting a DNA foundation model, Evo2, to genetic circuit design. We develop representations that capture functional similarity between parts, enabling reliable retrieval and AI-guided part suggestions. To support this process, we developed a sequence-centric data model that provides easily accessible, findable metadata, including safety status. Our sequence editor and search engine makes the model's capabilities available to users at https://biocomplete.it/. Together, these components form a cycle: cleaner data improves the model, the model creates meaningful embeddings, and these embeddings power new tools for synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/60f16a76-4b8b-4a8b-8019-f2009e3e90eb/04d67d0e-b13c-4465-824f-2970d3761fd6-master.m3u8https://video.igem.org/videos/embed/cYjeNcA5eyB2Ec2ZwN7i6n1517062025-11-06T18:30:47.603ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fMNJcNQhP5vAyTneSmFRTrhttps://video.igem.org/lazy-static/thumbnails/bfc79175-7be4-4c9e-93f8-cdbbad2a94e3.jpgLZU-China: Judging SessionHuman umbilical cord mesenchymal stem cell (hUC-MSC)-derived exosomes can ameliorate liver disease via their diverse effector cargo. While individual miRNAs like miR-455-3p and miR-148a-5p are known anti-fibrotic agents, their therapeutic synergy is uninvestigated. This study co-delivers two distinct exosome populations, each artificially supplemented with one of these miRNAs, to assess their combined efficacy.https://static.igem.org/peertube/streaming-playlists/hls/77c53534-1603-473e-afe8-4db6d5c3dae3/9735ac53-2f78-4383-9449-228e9fbe5a18-master.m3u8https://video.igem.org/videos/embed/fMNJcNQhP5vAyTneSmFRTr1531052025-11-06T18:30:50.081ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vKmTuMyWvXVumvnyPLdCnohttps://video.igem.org/lazy-static/thumbnails/359c7fe4-f82c-4f89-92e2-da1a8d157e51.jpgUCS-A: Judging SessionObesity is the main cause of many diseases, and the number of obese people worldwide is increasing at an alarming rate. In China, issues such as adolescent obesity have seriously affected the lives of many people. As a result, the country has put forward the concept of the "Year of Weight Management". Our goal is to make the sqr and fcsd enzymes produced in large quantities by special Escherichia coli into tablet or capsule forms to help with fat loss and blood sugar reduction, and we have built home and medical versions of hardware to assist in measuring the hydrogen sulfide content in patients' bodies.https://static.igem.org/peertube/streaming-playlists/hls/f0e6e038-0d4f-4c68-ba62-dd5c41ca0068/686883fd-b610-4fa3-9d05-b29ff6cdd34c-master.m3u8https://video.igem.org/videos/embed/vKmTuMyWvXVumvnyPLdCno1685002025-11-06T18:30:51.029ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vNmHY6xGZLa6ibEDmt7tzNhttps://video.igem.org/lazy-static/thumbnails/80b696b6-7063-425a-8e2f-a6712754131d.jpgTsinghua-A: Judging SessionProtein translation proceeds discontinuously, with ribosomes pausing to enable co-translational folding of nascent chains. Although ribosome profiling (Ribo-seq) has revealed widespread translational pauses, existing mRNA design frameworks largely ignore these kinetic features. Here, we identify conserved pausing sites across multiple human cell lines using EIF-based Ribo-seq and propose that such pauses facilitate proper protein folding. We developed PACD (Pause-Aware Codon Design), a computational framework that incorporates ribosome pausing information into mRNA optimization. A neural model trained on pausing sequences enables predictive integration with LinearDesign to preserve beneficial pauses during codon optimization. While pause-constrained designs slightly reduce mRNA stability and CAI, they are expected to enhance folding efficiency. This study represents the first systematic attempt to link translational pausing with codon design, providing a foundation for engineering “pause-aware” synthetic genes with improved structural fidelity.https://static.igem.org/peertube/streaming-playlists/hls/f1520183-9e67-4a5f-875f-4387d0ff6ed4/73be48c0-a60e-446e-8aba-ccfda8da131a-master.m3u8https://video.igem.org/videos/embed/vNmHY6xGZLa6ibEDmt7tzN1652012025-11-06T18:31:36.915ZYES2025 Judging SessionsNOhttps://video.igem.org/w/dii9H3W2d2jJpAALQk9nY2https://video.igem.org/lazy-static/thumbnails/239684da-fcc3-45bd-a759-dd3bec7fbe0d.jpgUni-Padua-IT: Judging SessionHutchinson–Gilford Progeria Syndrome (HGPS) is a rare genetic disorder causing premature aging, with patients typically passing away in early adolescence from cardiovascular complications. The Uni-Padua-IT team, inspired by a fellow student and researcher affected by HGPS, chose to develop ProgERASE. Our project aims at promoting the degradation of progerin, the aberrant version of lamin A responsible for the disease, in a PROTAC-like system. We first designed progerin interactors using an innovative computational pipeline that employs the latest AI-based reverse folding software. We later validated their interaction in yeast (Yeast Two-Hybrid) and the overall system functionality in mammalian cells. Our project made us realize the true impact of science and the need to make it accessible to everyone. For this reason, we developed E.A.S.Y., a guide to make scientific papers more understandable to a wider audience. We believe that diversity of scientific perspectives is what makes research truly groundbreaking.https://static.igem.org/peertube/streaming-playlists/hls/6397e08d-4220-4481-a9fc-ff955fd2f015/bff586f5-bab3-438a-b897-40ac1bb3449a-master.m3u8https://video.igem.org/videos/embed/dii9H3W2d2jJpAALQk9nY214700192025-11-06T18:32:15.323ZYES2025 Judging SessionsNOhttps://video.igem.org/w/bFSrw9Jje9qafCqeLgSfvXhttps://video.igem.org/lazy-static/thumbnails/c722950b-ef96-44f6-b2c1-36540e2cac40.jpgIIT-Madras: Judging SessionTargeted DNA methylation is a promising approach for programmable gene regulation. To explore this, we designed and expressed a novel fusion protein, dCas9-Dam (DNA adenine methyltransferase), in E. coli. dCas9 was directed to user-specified loci with the help of guide RNA, enabling targeted adenine methylation at GATC sites. We constructed a plasmid encoding dCas9-Dam with guide RNA and a reporter plasmid containing a GFP gene downstream of a methylation-sensitive promoter. Co-transfection into E. coli allowed us to assess whether dCas9-Dam could induce targeted methylation and regulate GFP expression. Our results will test the ability of dCas9-Dam to perform locus-specific DNA methylation and alter reporter gene expression.The system can be extended to other methyltransferases in bacteria, opening avenues for applications in biomanufacturing, therapeutics, and diagnostics. By enabling precise epigenetic editing, this approach holds potential for developing novel treatments for diseases linked to aberrant methylation, such as cancer, neurodegenerative disorders,and imprinting-related syndromes https://static.igem.org/peertube/streaming-playlists/hls/568c7a77-4859-4276-8542-5e19419dd741/ee1bb92f-a149-44c2-84dd-326d25618d6a-master.m3u8https://video.igem.org/videos/embed/bFSrw9Jje9qafCqeLgSfvX15330102025-11-06T18:32:15.637ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6Lnu3MrKtHBmkmFAX6MrBphttps://video.igem.org/lazy-static/thumbnails/a82f2e0f-8ffa-41f2-acfc-730d34d918eb.jpgYiYe-china: Judging SessionBreast cancer remains one of the most prevalent cancers and a leading cause of cancer-related deaths among women worldwide. The Hippo signaling pathway, which includes key components such as large tumor-associated kinases, and the transcriptional coactivators Yes-associated protein (YAP) and TEAD4, plays a critical role in regulating cell growth. Recent studies have identified TEAD4 as a crucial player in breast cancer development. In our research, we utilized the CRISPR-Cas9 system to design specific single guide RNAs (sgRNAs) that target and knock out TEAD4 in breast cancer cells. This genetic manipulation showed promising results in inhibiting cell proliferation, migration, and invasion. Furthermore, our bioinformatics analysis reinforced the critical role of TEAD4 in tumorigenesis.https://static.igem.org/peertube/streaming-playlists/hls/2eafa8ae-57da-453f-85b6-4f3dd030d841/a76afbcb-785c-4cbd-b361-f18a4506f517-master.m3u8https://video.igem.org/videos/embed/6Lnu3MrKtHBmkmFAX6MrBp1103092025-11-06T18:32:20.275ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6yoCHmccjtqKjKbeykk9Aghttps://video.igem.org/lazy-static/thumbnails/59c31d09-0a23-4213-ac17-d4f5a6e65cbb.jpgKorea-HS: Judging SessionFruit peel waste is a significant component of agricultural biomass, yet its rich pectin content remains underutilized. To address this, we engineered Lactobacillus reuteri, a Generally Recognized as Safe (GRAS) probiotic, to secrete polygalacturonase (pgxC) for extracellular pectin degradation. Using the pTRKH3 backbone under the ermB promoter and fused with the Usp45 secretion signal, we achieved stable expression and secretion of pgxC. Transformation in E. coli and L. reuteri confirmed plasmid maintenance, while SDS-PAGE revealed a distinct 48.5 kDa pgxC band. Protein quantification indicated increased secretion in engineered strains (0.10 vs 0.04 µg/µL controls). Functional assays validated pgxC activity: engineered L. reuteri released significantly greater amounts of D-galacturonic acid from pectin, with degradation efficiencies varying across fruit sources (pear and tomato > kiwi > banana > watermelon). This work demonstrates probiotic-mediated fruit peel valorization and highlights applications in biofuels, feed, and prebiotic production through a sustainable waste-to-resource platform.https://static.igem.org/peertube/streaming-playlists/hls/2d037127-9290-4f0e-be79-a204b233434b/14c25364-6222-4f05-894e-8a28c1073291-master.m3u8https://video.igem.org/videos/embed/6yoCHmccjtqKjKbeykk9Ag1582052025-11-06T18:32:35.461ZYES2025 Judging SessionsNOhttps://video.igem.org/w/72swE5cJdQRRibWWr7dmc3https://video.igem.org/lazy-static/thumbnails/9c2b96a3-7fb0-4a66-b7cd-120c78a9c6d7.jpgHangzhou-MedX: Judging SessionCardiovascular diseases increasingly threaten young populations due to stress and unhealthy habits. Salidroside, a cardioprotective compound from Rhodiola rosea, shows antioxidant and anti-hypoxic effects but is difficult to source sustainably. To solve this, we engineered Escherichia coli to biosynthesize salidroside via an optimized tyrosol pathway and heterologous expression of a UDP-glucosyltransferase (UGT). In addition, we developed a whole-cell biosensor targeting 4-hydroxyphenylpyruvate (4HPP), a key intermediate in the microbial biosynthetic pathway of salidroside. By employing this sensor, we enhanced salidroside production through directed evolution. Our system provides an eco-friendly, scalable alternative to plant extraction, reducing pressure on fragile plateau ecosystems while supporting youth heart health through synthetic biology innovation. https://static.igem.org/peertube/streaming-playlists/hls/30caecae-5866-42c9-baaf-8671532506b0/441608e4-d8dc-451e-8e24-aed931bffe34-master.m3u8https://video.igem.org/videos/embed/72swE5cJdQRRibWWr7dmc31503012025-11-06T18:32:38.541ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4hhGVB5U549ssHfb3e3m4Zhttps://video.igem.org/lazy-static/thumbnails/ca2bed6a-494d-4c43-8fba-fb9ab4b748b5.jpgCAU-China: Judging SessionBacteria are widespread, and bacterial crop diseases cause annual devastating agricultural damage. CAU-China 2025 builds PhAgri, a SMART phage-like particle (PLP) platform：it can precisely target and kill pathogenic bacteria without accidentally harming other. Meanwhile, since PhAgri has no self-replication ability, its safety is effectively guaranteed. Using E. coli MG1655, we developed a delivery system, tail fiber replacement platform, and Alphage software for flexible antibacterial spectrum reprogramming. We hope that when PhAgri moves beyond the laboratory, it can be cultivated and used independently by farmers. By providing them with eco-friendly and highly effective pesticides, PhAgri will align with multiple Sustainable Development Goals. In the future, we anticipate that PhAgri will not only safeguard food security, but also enable the synthesis of artificially designed bacteriophages through predictive modification of tail fiber proteins—ultimately solving all potential bacterial problems.https://static.igem.org/peertube/streaming-playlists/hls/1a919c8a-5262-492f-b45d-292e5f6cc797/1b9f2926-8613-49ae-9a55-7dcf2d88a2ab-master.m3u8https://video.igem.org/videos/embed/4hhGVB5U549ssHfb3e3m4Z15030232025-11-06T18:32:40.559ZYES2025 Judging SessionsNOhttps://video.igem.org/w/67T6fgnhb6Px1YhY7Ur3rrhttps://video.igem.org/lazy-static/thumbnails/6a6772d6-aeef-41d4-a62a-192e3881dd94.jpgBenenden Guangzhou: Judging SessionHeart disease is the number one cause of death in humans. But fish can also suffer from heart problems-especially in fish farms, where sick fish often go unnoticed. Many fish die from blood clots inside their bodies, and farmers cannot easily tell what caused it. Our team is studying a special molecule called hirudin, which comes from leeches. Hirudin stops blood from clotting and has been used to treat human heart disease for over 100 years. We want to know: can hirudin also help fish? We Identified hirudin genes from 12 types of leeches. We then converted these genes into genetic parts that can be used by all iGEM teams to do research on. Our own research shows that synthetic hirudin from these genes have the potential to help fish live longer and healthier lives in farms. We hope it will improve fish farming around the world.https://static.igem.org/peertube/streaming-playlists/hls/2973a43b-1a5d-4815-86e4-69f216c778f3/ec74bb91-f081-4b83-915a-009728ec3e01-master.m3u8https://video.igem.org/videos/embed/67T6fgnhb6Px1YhY7Ur3rr1507042025-11-06T18:32:44.600ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uFvssCAGLCMmT52Nkt6Wsbhttps://video.igem.org/lazy-static/thumbnails/e42c0f9d-9473-4cf2-97da-f1e3659206a9.jpgJLU-NBBMS: Judging SessionGinsenoside Ro is one of the rarest and most valuable bioactive compounds in ginseng, celebrated for its potent antioxidant properties and multi-target therapeutic potential. However, its natural abundance is extremely low, and traditional extraction methods are both costly and environmentally unsustainable. To address this challenge, we engineered a recombinant Saccharomyces cerevisiae system capable of converting waste oil–derived carbon sources, such as glycerol and fatty acids, into Ro through an optimized three-step biosynthetic pathway. By integrating metabolic engineering, enzyme evolution, and modeling-guided optimization, we achieved a substantial enhancement in Ro yield while reducing resource consumption and environmental footprint. This platform exemplifies the principles of a circular bioeconomy, transforming industrial waste into high-value pharmaceuticals. Combining strong environmental benefits with significant economic potential, our work establishes a scalable, sustainable model for advancing green manufacturing and the future of synthetic biology–based healthcare.https://static.igem.org/peertube/streaming-playlists/hls/e8440ae3-74c2-4dd9-a2a3-ba9bb51eddde/e0696dc1-0216-403a-a3ff-639f7ca7bd47-master.m3u8https://video.igem.org/videos/embed/uFvssCAGLCMmT52Nkt6Wsb1550072025-11-06T18:32:49.612ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3AwvMoZZCPmP2CpVX9y5cfhttps://video.igem.org/lazy-static/thumbnails/1b3c0449-d424-4a7e-8a42-e60d7e757781.jpgXJTLU-Software: Judging SessionAntimicrobial peptides (AMPs) are essential natural molecules with broad-spectrum antimicrobial activity. To accelerate AMP discovery, we developed SPADE, a Systematic Platform for Antimicrobial peptide Database with Evaluation, integrating and standardizing data from four major AMP repositories (APD3, DRAMP, DBAASP, and LAMP), resulting in over 39,000 curated peptides. After rigorous cleaning and unification of experimental conditions, we established the AMP-Oriented Six tasks (AMPOS) dataset and the AMP-Oriented Multi-Property Prediction Task (AMPPT), covering classification and regression subtasks including MIC, half-life, and hemolytic activity. We further designed the AMP-Oriented Multi-task Model (AOMM), achieving state-of-the-art performance across all AMPPT subtasks. Additionally, a Retrieval-Augmented Generation (RAG) system was implemented to enhance intelligent AMP searching. Overall, SPADE provides an integrated, reproducible, and extensible foundation for AMP data analysis, model benchmarking, and AI-assisted peptide design in modern bioinformatics.https://static.igem.org/peertube/streaming-playlists/hls/15045ebf-7b83-4417-86e0-9aa2479530bc/034a5cb9-2d64-478d-893b-13f25e17dfdd-master.m3u8https://video.igem.org/videos/embed/3AwvMoZZCPmP2CpVX9y5cf1536022025-11-06T18:32:51.704ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uLr1VL47FDD2RFLhYbonwdhttps://video.igem.org/lazy-static/thumbnails/2fec6977-5303-4d5f-a7c7-918ddc1761fc.jpgUNILausanne: Judging SessionRare earth elements (REEs) and tellurium are essential for high-tech and renewable technologies, yet less than 1% are currently recycled. To address this, we developed a sustainable, bio-based strategy to recover these elements from e-waste streams. We engineered a modular system using amyloid protein fibers displaying REE-binding proteins, achieving high-affinity capture of REE ions and creating a powerful part collection. Mathematical modeling and molecular dynamics simulations guided design optimization, while a business plan and market analysis evaluated commercial viability. For tellurium recovery, we harnessed the Ter operon to efficiently reduce toxic tellurite into elemental tellurium. To promote our project and raise awareness of synthetic biology, we conducted extensive outreach through exhibitions, workshops, educational activities, blogs, podcasts, and interactive games across hospitals, museums, and schools. Thus, our project demonstrates an integrated synthetic biology platform for the biological recovery of REEs and tellurium from electronic waste.https://static.igem.org/peertube/streaming-playlists/hls/e8f40666-c521-4c42-ac0d-4aa7f23ec6dc/b692bb29-832e-4d8f-9d68-96ba09147df7-master.m3u8https://video.igem.org/videos/embed/uLr1VL47FDD2RFLhYbonwd1547032025-11-06T18:32:53.072ZYES2025 Judging SessionsNOhttps://video.igem.org/w/9fBfHojik2npeXZx7iRiCHhttps://video.igem.org/lazy-static/thumbnails/c47fb007-894a-40e3-bf40-2eb75804c6b3.jpgUSP-Brazil: Judging SessionN-glycosylation, the attachment of glycans to asparagine residues, is a critical post-translational modification that influences protein folding, stability, signaling, and activity. Over half of human proteins are glycosylated, yet current therapeutic glycoprotein production depends on eukaryotic hosts, as common models such as Saccharomyces cerevisiae and Escherichia coli are unsuitable. E. coli lacks an N-glycosylation pathway, leading to insoluble proteins, while S. cerevisiae produces hypermannose glycans that are immunogenic in humans. To overcome these limitations, we are engineering optimized microbial platforms for glycoprotein synthesis. In yeast, glycan chain extension is disrupted to generate simpler structures, and in E. coli, a de novo glycosylation system is reconstructed using modular Golden Gate-compatible parts. Both systems aim to produce the universal precursor Man₃GlcNAc₂. We developed 24 yeast mutants to evaluate growth, fitness, morphology, protein production, and glycan transfer, and incorporated archaeal oligosaccharyltransferases into E.coli to explore their ability to transfer glycans to human-like sequons.https://static.igem.org/peertube/streaming-playlists/hls/42d33f77-3bae-447c-9096-ec6d9f601e6d/ead4b02d-c515-48bc-be52-fa606477c694-master.m3u8https://video.igem.org/videos/embed/9fBfHojik2npeXZx7iRiCH1468022025-11-06T18:32:56.929ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5qdbvkVptftNKhRAgvGKPphttps://video.igem.org/lazy-static/thumbnails/19d287f3-b9cf-4c3d-9e4e-cf0defa01d9a.jpgTsinghua-M: Judging SessionTraditional Chinese Medicine (TCM) employs "pulse diagnosis" to identify bodily imbalance via dynamic patterns—such as the speed, strength, and rhythm of the wrist pulse—and facilitate precise interventions. Industrial yeast cell factories also encounter intermittent, multi-source stresses analogous to physiological imbalances in human body, yet they lack a pulse-diagnosis-like technique to pinpoint stress disturbances and implement tailored regulation. Such stresses reduce product yield and compromise batch stability, becoming a major bottleneck for large-scale production. Inspired by TCM, we propose visualizing the spatiotemporal responses of yeast strains as "stress pulse patterns," and designing targeted genetic regulatory modules accordingly. Specifically, we developed a tripartite genetic oscillator that transforms stress inputs into quantifiable “fluorescent pulses” (to analyze stress sources/intensities) and paired it with a toolkit of multi-stress resistance genetic elements and a pulse regulation strategy. This low-metabolic-burden, customizable platform enables dynamic diagnosis and precise regulation in fermentation, boosting process robustness and efficiency.https://static.igem.org/peertube/streaming-playlists/hls/23c5e979-9fed-413f-a731-db536cc60a39/ed827341-db70-4b1e-9fc3-0c285a618840-master.m3u8https://video.igem.org/videos/embed/5qdbvkVptftNKhRAgvGKPp1529002025-11-06T18:33:00.294ZYES2025 Judging SessionsNOhttps://video.igem.org/w/eeMvZzx4LDLexMSjWTcFzDhttps://video.igem.org/lazy-static/thumbnails/b97a6cd9-4bc9-4c60-8be3-f9401aecaa26.jpgUGM-Indonesia: Judging SessionBiomanufacturing of therapeutic proteins and vaccines faces high costs and scalability limitations, posing challenges for dengue vaccine production in low- and middle-income countries such as Indonesia. To address this, we designed an expression system that enables spatially and temporally controlled, high-yield vaccine production by combining the replication mechanism of the Tobacco Yellow Dwarf Virus (TYDV) with the salt-inducible promoter pPdDREG1B for the controlled expression of the DENV-2 envelope protein subunit domain III (EDIII). To expand our repertoire of salt-inducible promoters, we developed NiSPOT, a software tool that classifies and identifies promoters inducible by various stressors, including salt stress. The vaccine protein was optimized using an ESM2-based mutagenesis model to enhance stability. Construct assembly was performed using Golden Gate Assembly and verified via Oxford Nanopore sequencing, followed by transient expression in Nicotiana tabacum through Agrobacterium-mediated agroinfiltration. This system enables precise, inducible control of vaccine protein production in plants.https://static.igem.org/peertube/streaming-playlists/hls/6b3385c3-2aa5-4fb7-98b3-29418be5e643/ceeb7dbc-2f01-4b24-b513-67c1bfe641ed-master.m3u8https://video.igem.org/videos/embed/eeMvZzx4LDLexMSjWTcFzD1518012025-11-06T18:33:03.756ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tcpvmCquGTBx4Aknp4khdphttps://video.igem.org/lazy-static/thumbnails/0eac44db-e92a-4d5f-bfe4-7c034d8d0d83.jpgUM-Macau: Judging SessionTermites endanger the development of sustainable, safe, and resilient communities and our team is developing an environmentally friendly solution for their control. Unlike conventional chemical pesticides, which pose significant hazards to ecosystems, humans, and animals, our approach uses biodegradable polypeptides, ensuring both high efficacy and ecological safety. The project is structured into two components: attraction of termites and their targeted elimination. The attraction mechanism uses the Cytochrome P450 enzyme from Bacillus megaterium to catalyze the conversion of phenol into hydroquinone, a phagostimulant to enhance termite feeding behavior. For the control strategy, two approaches have been devised: (1) disruption of the termite’s symbiotic protozoa within the gut via antimicrobial lytic peptides Hecate and Melittin; and (2) inhibition of digestive processes via an Enterolobium contortisiliquum trypsin inhibitor, which blocks key digestive enzymes. By utilizing biologically-based alternative toxins, our team aims to target and suppress termite infestations while achieving sustainability and environmental protection.https://static.igem.org/peertube/streaming-playlists/hls/dc3e6955-53c8-4281-a317-46354fe15d57/2f66d620-cbef-43de-aa60-151762aaa5a6-master.m3u8https://video.igem.org/videos/embed/tcpvmCquGTBx4Aknp4khdp1655032025-11-06T18:33:04.428ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5o43z56vUYT34QMPfwhNjNhttps://video.igem.org/lazy-static/thumbnails/512a36f8-8a2d-4a92-af7d-74a3e5221f2f.jpgUprize-II: Judging SessionThe project aims to deliver a safe, effective green mosquito repellent "bio-fermented citral". It constructed the IPP/DMAPP→GPP→geraniol→citral synthetic pathway in E. coli using three enzymes for modular expression on 3 vectors, and screened mutants like GeDH-54883 to boost catalytic stability. Engineered strains showed normal growth. QPCR confirmed upregulated transcription of target genes; WB verified successful protein expression. TB medium fermentation yielded 0.89-1.36 g/L citral, with yield-improving synergy identified via multi-factor optimization. Non-spray sustained-release prototypes were designed. Surveys confirmed core demands, guiding compliance strategies. A closed-loop validation from pathway construction to product definition was completed, proving bio-fermented citral’s scalability. https://static.igem.org/peertube/streaming-playlists/hls/2378cb30-3cf6-415d-ae2f-de559d89d61a/7b1bbcf6-2e94-4a04-9da2-8742d757049d-master.m3u8https://video.igem.org/videos/embed/5o43z56vUYT34QMPfwhNjN1344042025-11-06T18:33:07.859ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3EwJZWwGGDJ56BUEDFnjcfhttps://video.igem.org/lazy-static/thumbnails/b7497dec-356b-434b-a66e-17874cbefc88.jpgETH-Zurich: Judging SessionWe want to turn red mud, a hazardous bauxite waste, into a source of rare earth elements (REEs). Using Chlamydomonas reinhardtii engineered with a high-affinity binding protein, our algae capture lanthanides from dilute solutions with low concentrations of the precious materials. The workflow is straightforward: pre-treat the red mud, let algae accumulate REEs, ash, recover. A prototype bioreactor supports easy growth and handling. The goal: pair red-mud cleanup with low-input REE recovery that plugs into classical downstream extraction. Experts told us loud and clear: turning red-mud cleanup into a win is exciting and overdue. We have been fueling that momentum, sparking awareness and enthusiasm in the next generation of students.https://static.igem.org/peertube/streaming-playlists/hls/15937c51-67a3-4202-8cd8-8874d5adb66c/36d91b10-f183-4ce1-9657-cf6039d1290f-master.m3u8https://video.igem.org/videos/embed/3EwJZWwGGDJ56BUEDFnjcf1511022025-11-06T18:33:12.490ZYES2025 Judging SessionsNOhttps://video.igem.org/w/53dqGEgq3nEDj8iZ5q4Siqhttps://video.igem.org/lazy-static/thumbnails/ebab0ab9-665a-451b-83ea-c457c98a6068.jpgMingdao: Judging SessionThrough IHP, we identified two key challenges from stakeholders’ perspectives: insufficient efficiency of PLA-degrading enzymes and unclear recycling classification. To address the first issue, we engineered recombinant enzymes (AC, CA, DP, PK) and developed an auto-induction measurement system for high-throughput screening, with PK variants showing the most promising activity. For the second issue, we aligned with the SDGs by organizing a target field to test PLA usage in isolation and submitting a citizen proposal to advocate for clearer waste management policies and the establishment of industrial composting facilities in Taiwan, providing a practical solution to misclassification. Our project demonstrates the integration of enzyme engineering with community engagement to advance PLA degradation and sustainable waste management.https://static.igem.org/peertube/streaming-playlists/hls/20b3b32c-ada5-43e0-ac23-8148f6b11932/7a92af0b-bef2-454a-8bfb-5f18e2a0c2ea-master.m3u8https://video.igem.org/videos/embed/53dqGEgq3nEDj8iZ5q4Siq1666002025-11-06T18:33:15.277ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nygsTo6sT16UVU75XAxk4Fhttps://video.igem.org/lazy-static/thumbnails/aa68432e-bc95-467d-bad3-c3f5d41c2bb9.jpgSHSID: Judging SessionWe aim to design a biosensor for detecting hexavalent chromium (Cr) using synthetic biology techniques, while utilizing soluble flavoprotein ChrR and YieF to achieve effective reduction of hexavalent Cr in Escherichia coli BL21(DE3); A biosensor based on the pigment protein AmilCP is used to detect the presence of hexavalent Cr, and the concentration of reduced hexavalent Cr is determined using the diphenylcarbazide spectrophotometric method; By employing a safe microbial method, this approach achieves a more efficient, convenient, and environmentally friendly mitigation of hexavalent Cr toxicity.https://static.igem.org/peertube/streaming-playlists/hls/ae913e04-265c-4f41-affc-6edeb1fa4cd9/cbe468cf-8279-4b7b-96b4-f8718f3cf3b4-master.m3u8https://video.igem.org/videos/embed/nygsTo6sT16UVU75XAxk4F1361052025-11-06T18:33:16.080ZYES2025 Judging SessionsNOhttps://video.igem.org/w/9x9zMyreDEPNtaHHzPakhahttps://video.igem.org/lazy-static/thumbnails/830487c0-646a-49da-b7d4-c66ad3a375a9.jpgNYCU-Formosa: Judging SessionGenOMe is a next-generation, plasmid-free genome engineering platform that enables iGEM teams to integrate BioBrick components directly into specific E. coli chromosomal sites within just two days, achieving up to 80% efficiency. At its core, Bxb1 integrase mediates precise recombination between chromosomal attB and cassette attP sites, allowing seamless and site-specific DNA integration. The LandingPad module establishes reusable genomic slots that enable multi-round, marker-free insertions, while the GenOMe Parts Collection offers standardized attB/attP modules for scalable and modular construction. Combined with GenOMe Navigator, which predicts optimal integration sites and success rates, this system transforms genome editing into a fast, reliable, and standardized workflow—a true “genome LEGO baseplate” that empowers iGEM teams to build stable, creative, and inheritable genetic architectures, advancing synthetic biology into a new era of genome engineering.https://static.igem.org/peertube/streaming-playlists/hls/4522748f-1e52-4d11-8b24-ed4ed7877e0d/b7f8cda7-bb53-4b74-a5d9-fe654eb56bbf-master.m3u8https://video.igem.org/videos/embed/9x9zMyreDEPNtaHHzPakha1502062025-11-06T18:33:27.508ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tTtFacg8n2JngXAYa2E1ymhttps://video.igem.org/lazy-static/thumbnails/8997fab5-a777-46c9-a259-a9f1ba42a871.jpgSHSBNU-China: Judging SessionSpace exploration requires lightweight and durable materials to be manufactured in situ. Current chemical-based materials rely heavily on Earth supply chains. To address this gap, we engineered fusion proteins combining hagfish intermediate filament (HIF) and mussel foot protein (MFP) domains. Expression was induced in E. coli BL21 (DE3) and proteins were purified using Ni–NTA column. The best estimated yield reached 193 mg/ml. Co-assembly showed hydrogel formation, and the adhesive performance quantified by maximum force measurement recorded strength near 20,000 N/m², comparable to commercial glues. Adhesion was strong at space walking temperature (120 °C) but rapidly decline when below –20 °C. We developed SHIELD—a 3D-printed, low-cost fermentation device achieving cell densities upto OD600~20. Besides, we modified the fusion protein's structure, removing one of the terminal domains, and explored the structure-property relationships with preliminary results. With ARMOR, we are excited for the potential of syn-bio for next-generation space materials.https://static.igem.org/peertube/streaming-playlists/hls/e1d6bb43-e8c5-466b-b892-c0edfecdecf4/3d2ced6c-3085-479e-bed3-bf1288070c5e-master.m3u8https://video.igem.org/videos/embed/tTtFacg8n2JngXAYa2E1ym1570012025-11-06T18:33:32.312ZYES2025 Judging SessionsNOhttps://video.igem.org/w/f3YwnevGWLknfWrZV2eLyNhttps://video.igem.org/lazy-static/thumbnails/2a95c268-0022-420e-8d29-23df3b1a2b70.jpgLZU: Judging SessionAs an ancient art form, murals possess significant historical and artistic value. However, factors such as climate change and human activities frequently lead to microbial outbreaks on mural surfaces, resulting in issues such as discoloration of mineral pigments, powdering and flaking of painted layers, and organic staining, which severely threaten their preservation. We have developed a microbial platform capable of producing antimicrobial peptides to inhibit the growth of fungi and bacteria, as well as generating enzymes to degrade organic pigments including melanin and carotenoids. This platform utilizes a pH-inducible switch to transcribe different products under varying pH conditions and incorporates a toggle-switch-based containment mechanism to ensure that our engineered bacteria survive only under specific conditions, thereby preventing environmental release.https://static.igem.org/peertube/streaming-playlists/hls/71ca433d-803c-42fb-9848-5a4010bffd96/515d322f-c270-411c-8ce7-f6c399c19ff2-master.m3u8https://video.igem.org/videos/embed/f3YwnevGWLknfWrZV2eLyN1537012025-11-06T18:33:33.053ZYES2025 Judging SessionsNOhttps://video.igem.org/w/aYaYKS26fHDmgmjZc8eeVchttps://video.igem.org/lazy-static/thumbnails/08177fde-786d-450d-90e4-79d54496682a.jpgBUCT-China: Judging SessionFacing the dual environmental challenges of plastic pollution and food waste, this project proposes an innovative green upcycling strategy. We employ highly efficient biocatalysts—TurboPETase and cyclodextrin glycosyltransferase (CGTase)—to depolymerize waste PET plastic into a terephthalic acid (TPA) derivative and convert starchy kitchen waste into β-cyclodextrin (β-CD), respectively. Subsequently, these two products are assembled via supramolecular host-guest interactions to form a novel PPA-CD supramolecular phosphorescent material. This entire process operates under mild conditions, achieving the green and high-value valorization of two low-value waste streams into a functional material. It pioneers the simultaneous integration of plastic and food waste within a single system, offering a new pathway for sustainable material development and waste resource utilization.https://static.igem.org/peertube/streaming-playlists/hls/50ba0c6e-a8c0-4d6c-b3e8-108c38f15779/fbb567b2-175a-43e3-96ea-e4d60edaa8c1-master.m3u8https://video.igem.org/videos/embed/aYaYKS26fHDmgmjZc8eeVc1510002025-11-06T18:33:34.311ZYES2025 Judging SessionsNOhttps://video.igem.org/w/gfcmoxfp3BG5aa44ufsuwUhttps://video.igem.org/lazy-static/thumbnails/178fa74c-e861-43bf-9a05-b9f97c3fa4a1.jpgConcordia-Shanghai: Judging SessionIn response to the global challenge of plastic waste, our iGEM project aims to develop innovative biological pathways for the upcycling of polyethylene terephthalate (PET) plastic into high-value products, such as BHB (Beta Hydroxybutyrate). Our approach designs synthetic pathways in E. coli and P. putida, enabling them to convert PET waste into Polyhydroxybutyrate (PHB) and later BHB. Utilizing computational tools and Flux Balance Analysis (FBA), we will optimize the engineered pathways to enhance the flux towards PHB production. This will include the use of kinetic models to predict and refine enzyme activity based on varying substrate concentrations. By designing and constructing novel biological parts, we aim to establish an innovative production pathway that aligns with circular economy principles. This will not only facilitate the conversion of PET plastic waste into valuable products but also provide a sustainable solution to a pressing environmental issue.https://static.igem.org/peertube/streaming-playlists/hls/7b747d01-b46d-4498-959d-539dcf6398a0/e2c68d63-64f4-4e6f-b449-6a76cb891646-master.m3u8https://video.igem.org/videos/embed/gfcmoxfp3BG5aa44ufsuwU1513022025-11-06T18:33:36.336ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cuGdD8jYc3hSsVBoEKYrnBhttps://video.igem.org/lazy-static/thumbnails/82605a0f-92bc-4e43-9693-4cd444dbbc0b.jpgBAID-China: Judging SessionPesticide residues on food pose serious health risks to the whole world, yet current detection methods remain inefficient and unstable. Recognizing this issue, we developed Pestacheck, a rapid, low-cost pesticide residue detection test strip based on the enzyme-inhibition principle of acetylcholinesterase (AChE). Through Alanine-scanning mutagenesis, we engineered AChE mutants via Cell-Free expression system. The optimized enzyme was immobilized with Gold Nanoparticles (AuNP) to improve sensitivity and integrated into a colloidal gold-based test strip for visible colorimetric detection. Together, Pestacheck provides a user-friendly synthetic biology solution for on-site pesticide residue detection. https://static.igem.org/peertube/streaming-playlists/hls/5d1622d1-0162-42f5-b814-b0613f5de799/024d6c4e-50dd-4f23-9d2f-db0154c7ab11-master.m3u8https://video.igem.org/videos/embed/cuGdD8jYc3hSsVBoEKYrnB1493062025-11-06T18:33:39.119ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oKbxic65nt3CFWW4Sw43tAhttps://video.igem.org/lazy-static/thumbnails/ce781b5d-070e-4c4b-bbdf-2c630aab73d2.jpgGuelph: Judging SessionProject SeQUESTer aims to develop a sustainable, bioengineered filtration system to combat toxic heavy metal (THM) contamination in water, with an initial focus on lead (Pb). Lead pollution arises from industrial activity and aging infrastructure, posing persistent health and environmental hazards, especially in under-resourced communities. SeQUESTer introduces an innovative genetic sensing and sequestration platform using Saccharomyces cerevisiae. Our system integrates a riboswitch that detects lead ions, a reversible genetic memory switch that records exposure events, with the future direction to incorporate metal transporters that enhance cellular uptake and immobilization of lead. These engineered yeast cells are embedded within a porous agarose–zeolite scaffold housed in a scalable, modular biofiltration unit. This design enables simultaneous detection and removal of lead while maintaining environmental safety. SeQUESTer provides a low-cost, accessible, and eco-conscious alternative to conventional water treatment technologies.https://static.igem.org/peertube/streaming-playlists/hls/b8308723-74f5-4bb4-9a42-7540c1c975e0/d33b4a19-9682-499e-a00b-5afd8ae8d762-master.m3u8https://video.igem.org/videos/embed/oKbxic65nt3CFWW4Sw43tA1508032025-11-06T18:33:45.434ZYES2025 Judging SessionsNOhttps://video.igem.org/w/eagWMzk5ut4Rk5Fn9kMiBphttps://video.igem.org/lazy-static/thumbnails/a8a000cb-0a41-48ae-b06f-a6e394447f25.jpgHangzhou-PET: Judging SessionOdor control is a critical feature in the cat litter market, as ammonia produced from urea degradation is the main source of unpleasant smell. Conventional deodorization methods, such as physical adsorption or fragrance masking, carry inherent risks and limitations. To overcome these issues, we designed antisense RNA targeting bacterial urease mRNA to block urease synthesis in ureolytic bacteria, thereby suppressing ammonia release at its origin. For the first time, we developed an asRNA-chitosan-montmorillonite complex as a safe, eco-friendly, and antibacterial additive for cat litter that tackles urine odor from the source while enhancing litter performance.https://static.igem.org/peertube/streaming-playlists/hls/6a92529c-fa52-4f62-8702-0e3c3853a061/c4177f2f-7af3-4e7d-90ac-1121329dbb67-master.m3u8https://video.igem.org/videos/embed/eagWMzk5ut4Rk5Fn9kMiBp1533022025-11-06T18:33:46.798ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ek4LtZVqurREGLUNySKEoHhttps://video.igem.org/lazy-static/thumbnails/0bf8ed9e-3801-4902-a422-f8e85c943753.jpgIITChicago: Judging SessionBees are vital to global food production, yet their populations are collapsing at alarming rates. One of the main culprits is organophosphate pesticides, which disrupt bees' nervous systems and drive widespread colony losses. Our project, SynBeeGee, tackles this crisis by working directly with the bee gut microbiome. We focus on Snodgrassella alvi, a natural and stable gut symbiont, and engineer it using recombinant DNA methods to carry the organophosphate degradation (opd) gene. This gene encodes an enzyme that breaks down toxic pesticides into harmless byproducts, reducing their deadly impact on bees. Through Golden Gate Assembly and electroporation, we introduce this genetic circuit into S. alvi, creating a living pesticide-detoxifying partner. Unlike external treatments, this microbial ally persists inside the bee, spreads throughout the hive, and transfers engineered traits to offspring microbiomes, extending protection across generations. SynBeeGee offers a sustainable, self-sustaining defense for pollinators, agriculture, and the ecosystems we all depend on. https://static.igem.org/peertube/streaming-playlists/hls/6bf04173-ae4f-46b7-a6f5-c2a66d334bd5/1aed32dc-ea36-4668-b659-b9b464223cb3-master.m3u8https://video.igem.org/videos/embed/ek4LtZVqurREGLUNySKEoH1489002025-11-06T18:33:51.100ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nBHsYBgvP1zL7Y7raJCdk2https://video.igem.org/lazy-static/thumbnails/5f9bf0e6-9dc6-4401-84af-01482a615f68.jpgNAWI Graz Austria: Judging SessionReynoutria japonica, commonly known as Japanese knotweed, is a fast growing and propagating neophyte present in most of Europe, North America and New Zealand that poses a severe risk to local ecosystems and communities. While this invasive plant species is generally susceptible to chemical-herbicidal-agents and physical control methods, both come with 3 key drawbacks. They are either unable to guarantee long term removal, damage surrounding ecosystems or are highly cost, time and/or labor intensive. Using a modified Escherichia coli strain and a specifically designed dsRNA expression system our goal was to produce dsRNA that is able to post-transcriptionally silence essential genes of R. japonica, ultimately leading to plant death. Additionally, dsRNA encapsulation into liposomes enhances its environmental stability as well as its uptake into and distribution in the plant. Our work had one clear objective: Create an environmentally friendly, species-specific herbicide formulation with dsRNA as its active ingredient - Knotaut!https://static.igem.org/peertube/streaming-playlists/hls/af0c7f61-e8ab-4138-ba48-e98a649b5e1f/17c8621f-1a7e-4f2b-85ca-2b8e40750b90-master.m3u8https://video.igem.org/videos/embed/nBHsYBgvP1zL7Y7raJCdk21546002025-11-06T18:33:52.620ZYES2025 Judging SessionsNOhttps://video.igem.org/w/dMQ5QruiM4kH83aGKyjSB8https://video.igem.org/lazy-static/thumbnails/fb2c070f-fb16-42be-b441-125db3891ca6.jpgHKUST: Judging SessionCadmium is a severe heavy metal pollutant in several regions. Its effect as a pollutant threatens food safety, notably causing 14-17% of global cropland to be affected. Among sources of cadmium pollution, sludge is particularly detrimental with exacerbated consequences from downstream damage to human health and ecosystems. Within the sludge, there only exists trace yet still harmful concentrations of sludge, causing general heavy metal remediation methods to be ineffective against it. Simultaneously, it is the most significant ecological risk amongst heavy metals. Our team targets sludge and removes the pollutant cadmium by engineering Pseudomonas putida to express metallothioneins on its surface. Our team has introduced this metallothionein to the iGEM Registry and characterized it through Wet Lab Data and Dry Lab modeling. Supported by extensive Human Practices work, our team hopes to demonstrate the potential of our work and it as a promising and sustainable heavy metal bioremediation method. https://static.igem.org/peertube/streaming-playlists/hls/6793c418-55d9-4da9-89f0-2cacbd35302d/62a0a796-c5ed-45b7-ac4b-be852ff77148-master.m3u8https://video.igem.org/videos/embed/dMQ5QruiM4kH83aGKyjSB81512012025-11-06T18:33:54.624ZYES2025 Judging SessionsNOhttps://video.igem.org/w/x5mNC6TzfwCJJ7CHka6FgThttps://video.igem.org/lazy-static/thumbnails/742721d7-fd61-4323-8611-4abd44b7eba5.jpgHS-KY: Judging SessionPFAS (per- and polyfluoroalkyl substances) are chemicals used in several manufactured products. They have been called “forever chemicals” for their inability to break down in our environment and have accumulated to an extent that at least 97% of Americans have traceable amounts in their blood (NHANES 2015). However, while the full spectrum of their effects is not entirely understood, they have been implicated in several cancers and liver conditions. Current detection methods like mass spectrometry and liquid or gas chromatography are expensive and inaccessible to the general public. Our project aims to develop a cost-effective protein-based detection system for PFAS. Using a reverse-screening approach across multiple protein-ligand databases, we identified candidate human proteins predicted to bind perfluorooctanoic acid (PFOA), a representative PFAS. Among these, we purified and characterized a key DNA repair protein that is significantly destabilized in the presence of PFOA based on results from differential scanning fluorimetry (DSF).https://static.igem.org/peertube/streaming-playlists/hls/fba71827-e30a-4baa-b8e0-b33530c7c38d/2beeadce-ee7c-42f5-be34-7ba18863cdb8-master.m3u8https://video.igem.org/videos/embed/x5mNC6TzfwCJJ7CHka6FgT1686052025-11-06T18:34:00.096ZYES2025 Judging SessionsNOhttps://video.igem.org/w/qiKPepb2CYmoPrhrht7q5khttps://video.igem.org/lazy-static/thumbnails/cd9093b3-81be-4e86-b196-ee0c4e11e11b.jpgHopkins: Judging SessionPolygone seeks to improve human health by eliminating the microplastics that have accumulated in our seafood. With synthetic biology, Polygone engineered probiotics can enzymatically degrade plastic in fish guts, helping to create a cleaner diet and a cleaner world. https://static.igem.org/peertube/streaming-playlists/hls/c4d5f935-3fee-4002-8528-3d48771aaf3b/7cdcd806-364e-47e6-a79d-2967cb0cbdf3-master.m3u8https://video.igem.org/videos/embed/qiKPepb2CYmoPrhrht7q5k1572012025-11-06T18:34:01.695ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rCFp23WBQrG4YfF5Rsw5DAhttps://video.igem.org/lazy-static/thumbnails/a6bb2a26-8ae2-47f4-83ed-dc79fbe1b079.jpgHongKong-JSS: Judging SessionImproper disposal of pharmaceuticals and contamination from medical and agricultural sources have resulted in rising levels of pharmaceutical pollution across diverse environments. This project aims to develop integrated biosensor and bioremediator systems to detect and mitigate pharmaceutical contaminants. We designed cost‑effective biosensors using visible reporters in engineered Escherichia coli for the detection of compounds such as tetracycline and salicylate. Beyond detection, synthetic organisms were constructed to degrade these pollutants, enabling effective bioremediation. Furthermore, an AI‑assisted automated system was developed to bridge the gap between biotechnology research and practical applications, enhancing the accessibility, scalability, and real‑world impact of our work.https://static.igem.org/peertube/streaming-playlists/hls/cf93857a-7612-497b-a0ee-63121663f184/b912fe80-f195-4d59-8380-ea26ac6eeb50-master.m3u8https://video.igem.org/videos/embed/rCFp23WBQrG4YfF5Rsw5DA1731042025-11-06T18:34:03.480ZYES2025 Judging SessionsNOhttps://video.igem.org/w/s7hEHVH7quKHJKvi5Z5JXphttps://video.igem.org/lazy-static/thumbnails/a8f0873d-99e5-4152-87db-df858f54f31d.jpgZQT-China: Judging SessionChlorimuron-ethyl is a herbicide commonly applied in soybean fields to control weeds. However, its residues can persist in the soil, harming wheat seedlings in subsequent rotations by disrupting root growth, photosynthesis, and nutrient uptake. To address this issue, we engineered E. coli to express the PnBA enzyme, which de-esterifies chlorimuron-ethyl into a harmless benzoic acid derivative. Our product is formulated as a freeze-dried bacterial powder, designed for application after soybean harvest and before wheat planting. By reducing herbicide residues, this solution supports healthy wheat growth, protects soil ecosystems, and promotes sustainable crop rotation practices.https://static.igem.org/peertube/streaming-playlists/hls/d36e56ee-64b4-45bc-bde6-2987985721e5/307ed23a-264b-41b4-baec-b7bdf9a9c986-master.m3u8https://video.igem.org/videos/embed/s7hEHVH7quKHJKvi5Z5JXp1603012025-11-06T18:34:04.871ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sh2Q6PyaUSAHEt2m5y2nMthttps://video.igem.org/lazy-static/thumbnails/fb72e2ee-cc89-4c10-91c5-9a6b49c940f3.jpgBoston-BOSLab: Judging SessionCyanobacteria are photosynthetic microorganisms that can form harmful algal blooms. These blooms can lower oxygen levels, resulting in mass wildlife mortality. Microcystis aeruginosa, a common bloom-forming species, also produces the hepatotoxin microcystin, which accumulates in the food chain and induces severe physiological effects. Through rounds of discussion with experts, we found that early detection of microcystin is critical for effective management but remains limited. Current methods are slow, inconsistent, expensive, and unable to distinguish toxic from other strains. BloomBusters introduces a novel detection method based on CRISPR-SHERLOCK: an RNA-based fluorescent biosensor targeting toxin biosynthesis genes in Microcystis. This system enables rapid, sensitive, and specific detection of toxin-producing cyanobacteria within hours, allowing timely interventions and improved water safety. We demonstrated detection in mcyE/B RNA targets from Microcystis, allowing detection and management of toxic blooms using synthetic biology approaches, protecting ecosystems and public health before it’s too late. https://static.igem.org/peertube/streaming-playlists/hls/d4caa201-88e9-410d-a58f-d178db62c369/08cf7f09-e0b8-4071-8fa2-5213ff401197-master.m3u8https://video.igem.org/videos/embed/sh2Q6PyaUSAHEt2m5y2nMt1573062025-11-06T18:34:06.593ZYES2025 Judging SessionsNOhttps://video.igem.org/w/2gPpMy9Mby5GG9GiNVHNhPhttps://video.igem.org/lazy-static/thumbnails/84a12eaa-1bda-411a-b8d6-ecf1358ddeb3.jpgJPIS: Judging SessionRunoff carries nitrate, ammonium, and orthophosphate that drive eutrophication and waste fertilizer. We propose a modular biocartridge seeded with engineered E. coli encapsulated in alginate. In Capture mode, cells overexpress high-affinity transporters (NarK/P, AmtB, PstSCAB) and polymerize intracellular cyanophycin (CphA) for nitrogen and polyphosphate (PPK1/PPK2) for phosphorus. A burden-aware controller routes ATP and reducing power to storage only when external nutrients exceed setpoints sensed by PhoB/PhoR and NtrC networks. In Recover mode, orthogonal inducers activate CphB and PPX to depolymerize stores; a short elution concentrates N and P into a reusable stream for fertilizer blending. Encapsulation plus genetic biocontainment (auxotrophy + kill switch) prevents escape. Bench targets: 80% NO₃⁻-N removal and 90% PO₄³⁻-P removal within 6–12 h HRT at 10–50 mg/L influent, ≥10 reuse cycles with <5% activity loss per cycle. The system provides edge-of-field polishing with low reagents, nutrient recycling, and strong safety. https://static.igem.org/peertube/streaming-playlists/hls/0a4e8341-7fc3-462a-95ee-ececfddaedff/b9cceefd-35b1-4ac4-8960-b036a0c972fb-master.m3u8https://video.igem.org/videos/embed/2gPpMy9Mby5GG9GiNVHNhP1295012025-11-06T18:34:08.115ZYES2025 Judging SessionsNOhttps://video.igem.org/w/stgnsxQJcUikxJbz2v1WQkhttps://video.igem.org/lazy-static/thumbnails/e66cb0d1-0196-4f4e-bc36-4c76a4771ac8.jpgCHINA-XJTU: Judging SessionD-Allulose, a low-calorie sugar with multiple functions, is regarded as a revolutionary natural sweetener. The synthesis of D-allulose from fructose is catalyzed by D-tagatose-3-epimerase (DTE), while the low activity and poor stability of DTE have remained key bottlenecks for industrialization of D-allulose. Our study integrated artificial intelligence models such as LigandMPNN and AlphaFold3 for the de novo design of DTE. A novel RNA-mediated fluorescence system was developed for the high-throughput screening these AI-generated variants, resulting in a novel DTE enzyme with enhanced catalytic activity. The optimized DTE was subsequently applied to the production of D-allulose and other broader societal applications. This study establishes a applicable platform based on “AI Design-Efficient Screening-Application Validation” for enzyme development. It provides a breakthrough enzyme for D-allulose production, benefiting its industrialization and broad social applications in the food and pharmaceutical. It also offers a safe sugar-alternative solution to address obesity and diabetes etc.https://static.igem.org/peertube/streaming-playlists/hls/d65c28b5-d8bf-4ed3-89e9-35a21de5dc3b/68d394d7-36be-4276-bd71-8aac1451846b-master.m3u8https://video.igem.org/videos/embed/stgnsxQJcUikxJbz2v1WQk1146002025-11-06T18:34:25.080ZYES2025 Judging SessionsNOhttps://video.igem.org/w/c2uMTBLoG6pm7giXQ31M3hhttps://video.igem.org/lazy-static/thumbnails/e8f14815-1023-4650-a4ff-21b9f7185996.jpgHunanU: Judging SessionOur project presents a fluorescent aptamer-based sensor for rapid, sensitive, and specific detection of antibiotics, integrating a target recognition module with a versatile signal amplification module. The recognition core utilizes a ligand-binding oligo (LBO) that undergoes a specific structural change upon antibiotic binding, releasing a short release oligo (SRO). For signal amplification, we design two distinct strategies to suit various application needs: a T7 in vitro transcription system, where the SRO triggers the production of a fluorescent RNA aptamer, and a CRISPR-Cas12a system, where the SRO activates Cas12a's trans-cleavage activity to degrade a fluorescent reporter. This dual-approach system enables highly amplified and quantifiable detection of antibiotic residues.https://static.igem.org/peertube/streaming-playlists/hls/594a0322-38f8-4567-baad-0eedd5f3c538/cde60440-60ef-4492-9b94-726b9bf9288f-master.m3u8https://video.igem.org/videos/embed/c2uMTBLoG6pm7giXQ31M3h1230012025-11-06T18:34:26.220ZYES2025 Judging SessionsNOhttps://video.igem.org/w/bG6v9swa4FFkxZXp8g2j3ghttps://video.igem.org/lazy-static/thumbnails/982e832e-c58b-40d3-9f84-c014a7aeef7a.jpgBWYA: Judging SessionCat allergies affect a substantial population globally and are mainly caused by a few feline proteins (e.g., Fel d 1, Fel d 2, Fel d 4, Fel d 7). We developed FeliSilence, an RNA interference (RNAi) approach that silences allergen transcripts to reduce allergy at the source. To quickly and safely test RNAi efficiency, we created an accessible yeast shRNA reporter platform through simple fluorescence readouts—ideal for student teams. Candidate shRNAs were filtered to minimize off-target effects, and in the yeast assay, twelve of fifteen shRNAs demonstrated active knockdown, presenting candidates for further implementation. Human Practices guided our project priority of reversible RNAi over gene editing, and we assessed delivery feasibility through modeling of siRNA activity and lipid nanoparticle (LNP) targeting. To tackle the challenge uniting private sectors, our entrepreneurship plan outlines a feasible pathway, emphasizing safety, regulatory alignment, and clear advantages over symptom-based allergy treatments.https://static.igem.org/peertube/streaming-playlists/hls/56948748-2608-4f2a-a1f5-61321cb106c3/97a69dd3-e93c-407a-bfea-6931cbf3e8a0-master.m3u8https://video.igem.org/videos/embed/bG6v9swa4FFkxZXp8g2j3g1527012025-11-06T18:34:29.981ZYES2025 Judging SessionsNOhttps://video.igem.org/w/eQE3SqwTkWpt3GQfMJo6A2https://video.igem.org/lazy-static/thumbnails/bb744fd0-d5ca-4dad-a909-cacbc74c1e64.jpgJapan scinet: Judging SessionEvery year, 1.3 billion tons of food are wasted globally, with fruits and vegetables making up 45% of this loss. Fresh produce keeps respiring after harvest and is very sensitive to gases like ethylene. Climacteric fruits release ethylene, which accelerates their ripening and deterioration nearby produce. Since we often judge freshness only by appearance, edible food is sometimes thrown away. And if deteriorated food is left alone, safety risks like foodborne illness increase. To solve this problem, we developed PreserVEG, a Cre/loxP-based three-in-one system for climacteric fruits and vegetables. It has three key functions: Protection — nisin stops harmful bacteria; Sense — detection of ethylene gas; Visualization — GFP is expressed when deterioration begins. Using the Cre/loxP system, nisin protects produce while fresh, then ethylene triggers GFP to show spoilage. PreserVEG helps keep fruits and vegetables fresh and reduces global food waste. https://static.igem.org/peertube/streaming-playlists/hls/7011f3cd-dcee-42a9-80fb-e9d49107aa19/3f30937d-2c7c-4afb-a90b-549135affc60-master.m3u8https://video.igem.org/videos/embed/eQE3SqwTkWpt3GQfMJo6A21705032025-11-06T18:34:32.340ZYES2025 Judging SessionsNOhttps://video.igem.org/w/959jpeCrzrGg1hKfYZRjChhttps://video.igem.org/lazy-static/thumbnails/05c5e4dd-728c-4603-bdc8-2c2b75ed6602.jpgWIST: Judging SessionThis project develops a cost-effective biosensor for detecting arsenic in rice using Broccoli RNA aptamer technology, addressing food safety concerns per the Healthy Babies Bright Futures report (May 2025). The WIST team designed an ArsR-regulated system where the Broccoli aptamer activates fluorescence with DFHBI-1T upon arsenic binding. Through Design-Build-Test-Learn iterations, two plasmids were optimized: WIST_SENSE_MedArsR_StrArsC_001_A, producing ArsR and ArsC under a constitutive promoter for detection, and WIST_REPORT_002_B, generating the F-30 Broccoli aptamer for fluorescence. Mathematical modeling with a 4-parameter logistic model established a Limit of Detection below the FDA’s 100 ppb threshold, a 5–100 ppb dynamic range, and a 20–30 minute optimal window, validated by testing against interferents (Pb²⁺, Cu²⁺, Fe³⁺) and rice extracts from the HBBF report. Cell-free systems with T7 variants tuned synthesis. New parts are under iGEM Registry safety review. Despite uncompleted lyophilization and field deployment, the project offers valuable design data and protocols for future teams.https://static.igem.org/peertube/streaming-playlists/hls/415d35c5-bc05-40d6-965b-8bdced8630f8/c0acf104-63d3-477b-911c-73b9012ae17e-master.m3u8https://video.igem.org/videos/embed/959jpeCrzrGg1hKfYZRjCh1511042025-11-06T18:34:33.635ZYES2025 Judging SessionsNOhttps://video.igem.org/w/9fDofzne5mZ3ZiNCkDCrGchttps://video.igem.org/lazy-static/thumbnails/1ba4b8d8-7fc1-4d30-9926-4c037ea0d37d.jpgUNICAMP-Brazil: Judging SessionOrange production faces severe losses caused by Greening, Green Mold and Sour Rot, threatening food security and vitamin C availability. Especially in Brazil, leader of orange juice and fruit production, this directly affects livelihoods. To tackle this challenge, we focused on CTX, an antimicrobial peptide from Brazilian Cerrado biodiversity, and engineered three different hosts: E. coli, S. cerevisiae, and A. oryzae to optimize its production through coupling-strategies. To guide CTX application, we developed a mathematical model simulating Greening progression in the phloem and designed Sniffer, a hardware device combining an electronic nose and machine learning for rapid field diagnosis. Performing economic analysis to assess industrial scalability of approaches we demonstrated cost-effectiveness through solid-state fermentation using orange peels residues. Thus, Pepcitrus bridges laboratory innovation and real-world application, incorporating different perspectives from farmers, industry, and society to save oranges.https://static.igem.org/peertube/streaming-playlists/hls/42d48f80-1ba8-44ed-a638-0ca1154c0c6f/1ec16ee9-181c-4dc8-b626-1b2dfbb3ed05-master.m3u8https://video.igem.org/videos/embed/9fDofzne5mZ3ZiNCkDCrGc1595022025-11-06T18:34:34.686ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4f5rHzHkCrw4S1beFKpLLMhttps://video.igem.org/lazy-static/thumbnails/ee30d7fe-db63-4c36-a5b5-f613e748d9b4.jpgNACIS SHANGHAI: Judging SessionThe World Health Organization reports that at least 1 billion of the 2.2 billion people with vision impairment have preventable or unaddressed conditions. Visual health problems such as dry eyes, night blindness, and myopia are increasingly prevalent, particularly in East Asia. To address this, we engineered Saccharomyces cerevisiae to biosynthesize β-carotene de novo using CRISPR-Cas9, achieving a titer of 128.1 mg/L. Through spatial metabolic engineering, we localized carB and carRP to lipid droplets, increasing production to 318.4 mg/L. A color-based monitoring hardware enabled automated process control, and 5-L bioreactor optimization further elevated yield to 1.8 g/L. Guided by human practices, we engaged over 30 stakeholders across research and industry. Through education initiatives featuring AI-powered content, games, and community programs, we reached more than 30,000 participants. To commercialize, we created POCO, a youth-oriented personal care brand that transforms our synthetic biology achievements into a scalable and sustainable solution for vision health.https://static.igem.org/peertube/streaming-playlists/hls/1a42912d-6f11-44c9-b3a3-ddd785d45d3d/a026800e-5627-4c13-a579-f221c066b0fb-master.m3u8https://video.igem.org/videos/embed/4f5rHzHkCrw4S1beFKpLLM1719032025-11-06T18:34:36.297ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sKoaZ97FMHmABjJf4Y7x4Dhttps://video.igem.org/lazy-static/thumbnails/6bab7542-fcfc-4486-b9b9-33c98f526b59.jpgNotreDame: Judging SessionGLP-1 receptor agonists, such as semaglutide, stimulate insulin production while blocking glucagon release and slowing down stomach emptying. Though effective at weight management, semaglutide has several adverse gastrointestinal side effects, ranging from mild nausea and diarrhea to severe damage to the kidneys and pancreas. Semaglutide’s injectable synthetic form and extended systemic half-life make it difficult for patients to access and tolerate this medication. In response, Fleur was designed as an orally delivered engineered probiotic that can express and secrete wild-type GLP-1 within the human gastrointestinal tract. By using components of the body’s own gut microbiome and avoiding synthetic products, we hope to reduce systemic exposure to semaglutide and lower the risk of adverse events, while making a product that more sustainably controls T2DM symptoms and provides a comfortable and affordable alternative to injectable products.https://static.igem.org/peertube/streaming-playlists/hls/d89c4058-51c5-4a46-bd09-ba10bd6f59ff/2c22a4d0-b39b-41f5-9d00-5711237c9b7a-master.m3u8https://video.igem.org/videos/embed/sKoaZ97FMHmABjJf4Y7x4D1693012025-11-06T18:34:37.330ZYES2025 Judging SessionsNOhttps://video.igem.org/w/o8BECadT8xRt7CYe3eeRFJhttps://video.igem.org/lazy-static/thumbnails/44c4a49d-3137-4ef8-b4a9-ee843a1d28b5.jpgSR-China: Judging SessionTo address critical limitations in current infant formula—specifically the absence of immunomodulatory human milk oligosaccharides (HMOs), poor digestibility of casein micelles, and prevalent lactose intolerance—our team, Probabyotics, developed "2-FLuxe" using Escherichia coli Nissle 1917（EcN） as a probiotic chassis for integrated bioengineering. We constructed three synergistic systems: (1) a de novo 2’-fucosyllactose (2’-FL) synthesis pathway (via manB-manC-gmd-fcl-futC overexpression) to produce breastmilk-mimetic HMOs at >80% reduced cost; (2) recombinant trypsinogen expression for precise casein hydrolysis, alleviating gastrointestinal burden; and (3) high-yield β-galactosidase (lacZ) fermentation to eliminate lactose. Manufacturing involves EcN-based fermentation with low-cost substrates (glycerol/lactose), enzymatic purification, and incorporation of 2’-FL with trypsin/β-galactosidase-treated milk. The resulting formulation eliminates key drawbacks of conventional formulas by providing 2’-FL-driven pathogen inhibition and microbiota support, enhanced protein digestibility, and lactose-free tolerance—enabling accessible, breastmilk-equivalent nutrition for infants with digestive vulnerabilities or limited breastfeeding access.https://static.igem.org/peertube/streaming-playlists/hls/b3393c9f-e2fd-47ef-ad03-88ae7478373c/32bd5890-25c0-496b-bc07-3a9f992a41b8-master.m3u8https://video.igem.org/videos/embed/o8BECadT8xRt7CYe3eeRFJ1710022025-11-06T18:34:38.878ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oBhHSVq784ETa9SD3ymFJThttps://video.igem.org/lazy-static/thumbnails/8fdbb306-3e4d-42be-ac1b-cac373a35c6c.jpgUManitoba: Judging SessionThe vaginal microbiome is crucial for reproductive health, mainly dominated by Lactobacillus spp., which protects against pathogens by producing antimicrobial compounds. Disruption of this balance can lead to infections like UTIs. And 30% of women with UTIs experience recurrent infections. While antibiotics are the main treatment, resistance and microbiome disruption limit their effectiveness and don't address the problem of recurrent UTIs. Probiotics using Lactobacillus strains can help restore balance, but often struggle against pathogens. We chose to augment Lactobacillus crispatus with peptide inhibitors that target pathogen adhesion mechanisms, helping prevent colonization.https://static.igem.org/peertube/streaming-playlists/hls/b7166346-258f-4ae3-b177-df4ec05474d3/2fb1565c-57e8-430c-a687-7886810c8270-master.m3u8https://video.igem.org/videos/embed/oBhHSVq784ETa9SD3ymFJT1372022025-11-06T18:34:49.825ZYES2025 Judging SessionsNOhttps://video.igem.org/w/okut1VyTKYKUn5bZXsRrBMhttps://video.igem.org/lazy-static/thumbnails/c7fef9cb-6f53-4c07-8b1a-dbe77d403a00.jpgLatvia-Riga: Judging SessionBurn injuries affect over 10 million people annually, often resulting in infection, scarring, and long-term disability. Existing treatments - silver-based creams, conventional dressings, and biological materials - each have limitations in infection control, biocompatibility, and regenerative support. To address these challenges, we are developing biocompatible, multifunctional wound-healing system integrating structural, protective, and antimicrobial functions. The system combines an electrospun recombinant casein-propolis scaffold that mimics the extracellular matrix and supports tissue regeneration with a casein-hyaluronic acid hydrogel layer loaded with bacteriophages for targeted antibacterial action. This dual-component design maintains a moist environment, prevents infection without antibiotics, and promotes natural tissue repair. By merging regenerative biomaterials with specific and broad-spectrum antimicrobial mechanisms, our approach offers a patient-centered, cost-effective alternative to conventional burn care - minimizing pain, reducing dressing changes, and mitigating antimicrobial resistance risks.https://static.igem.org/peertube/streaming-playlists/hls/b4e1b98d-9f92-4444-916f-fb9fc3c52687/c1b4421e-a27e-434d-ac37-e712c473d8d7-master.m3u8https://video.igem.org/videos/embed/okut1VyTKYKUn5bZXsRrBM1698022025-11-06T18:34:54.464ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7jf2tZXE5R8fV3U8KMpYLchttps://video.igem.org/lazy-static/thumbnails/8f772f26-dc91-4c4f-be1a-51b81c528b03.jpgNEBS-VCA: Judging SessionPlastic pollution has emerged as a pressing global issue, with plastics accumulating in diverse environments to disrupt ecosystems. While natural enzymes that degrade common plastic PET exist, current PET hydrolases are not optimized for efficient, economical industrial use, and many bio-based polyester alternatives still degrade very slowly in the environment. Our project addressed these challenges by integrating AI-driven strategies, physics-based computational methods, and innovative polymer chemistry. It engineered high-performance PET hydrolases, such as TurboPETase, to enhance PET depolymerization, used simulations and calculations to explore enzyme catalytic mechanisms, and developed controlled-degradable, bio-based polyesters. The goal was to create a scalable enzymatic PET recycling system, design environmentally responsive plastics, and establish a closed-loop plastic cycle, bridging synthetic biology, computational chemistry, and materials science to promote sustainable plastic solutions.https://static.igem.org/peertube/streaming-playlists/hls/3322dd06-8d52-42fc-b110-bc2cb57ba2eb/047cb82b-d68f-4a88-bd7e-1d325320f05b-master.m3u8https://video.igem.org/videos/embed/7jf2tZXE5R8fV3U8KMpYLc1530062025-11-06T18:35:08.948ZYES2025 Judging SessionsNOhttps://video.igem.org/w/g7woPSgLbD6kp6y6W3H2rAhttps://video.igem.org/lazy-static/thumbnails/504d99a8-ef4f-41e8-b794-80eb0a49a641.jpgSCU-BSE-China: Judging SessionThis project establishes a thermotolerant microbial platform for the biosynthesis of specialized polyamines—long-chain and branched molecules with significant potential in medicine, agriculture, and advanced materials. The workflow began with collecting hot spring samples across a temperature gradient. Metagenomic analysis confirmed temperature as a core driver of microbial community structure and function, revealing a significant enrichment of polyamine synthesis pathways, especially spermidine synthase, which enabled the mining of key synthase genes. Subsequent multi-omics analysis of isolated thermophilic Bacillus strains under temperature stress revealed a coordinated cellular adaptation strategy involving metabolic reprogramming, protein homeostasis, and membrane regulation. Morphological analysis visually confirmed these adaptations. Crucially, polyamine biosynthesis pathways were consistently upregulated under heat stress, underscoring their integral role in thermotolerance. This project successfully validated native thermotolerant Bacillus as an ideal chassis, decoded the mechanisms of heat resistance and polyamine biosynthesis, and identified key synthetic biology elements. Future research will focus on developing synthetic biology tools for this chassis, genetically engineering the strain to optimize the production of target polyamines via modular pathway assembly and flux optimization, and expanding the portfolio of accessible bioactive polyamines by discovering novel enzymes from the established platforms.https://static.igem.org/peertube/streaming-playlists/hls/7a6245f0-b346-4f6c-8ea0-61a882dffb78/3416a399-59e9-4d42-9f9f-53bcb745a6d7-master.m3u8https://video.igem.org/videos/embed/g7woPSgLbD6kp6y6W3H2rA1504022025-11-06T18:35:46.782ZYES2025 Judging SessionsNOhttps://video.igem.org/w/srGg9B9ruyEVdWB5iPyGZLhttps://video.igem.org/lazy-static/thumbnails/e199493a-761a-446b-aad4-a5b8e462d8f2.jpgDKU: Judging SessionParkinson’s Disease (PD) is a neurodegenerative disorder caused by the progressive loss of dopaminergic neurons, leading to motor impairments such as tremors and rigidity. Current treatments rely on L-DOPA supplementation, but long-term use results in decreased efficacy and severe side effects. To address these limitations, we propose engineering Saccharomyces cerevisiae (S. cerevisiae) to biosynthesize and regulate L-DOPA production using the yeast codon-optimized CYP76AD6 gene from Beta vulgaris partnered with the AR2 gene from Arabidopsis thaliana. By integrating metabolic engineering and synthetic biology, our system aims to improve L-DOPA bioavailability while reducing treatment-related complications. The system incorporates sophisticated feedback mechanisms to maintain optimal L-DOPA levels, offering a potentially groundbreaking approach to PD therapy. https://static.igem.org/peertube/streaming-playlists/hls/d62402e0-cf30-413a-92b4-6f5625aeefc6/244f65ac-7391-4c09-8ae6-e78a04cde30e-master.m3u8https://video.igem.org/videos/embed/srGg9B9ruyEVdWB5iPyGZL1452022025-11-06T18:36:37.855ZYES2025 Judging SessionsNOhttps://video.igem.org/w/h4iwnKbAMCb9NgTt8ooz5chttps://video.igem.org/lazy-static/thumbnails/837fc7f7-f0cc-4934-acee-8f2505a71d4c.jpgUTDallas: Judging SessionTardigrades are extremophiles capable of surviving desiccation, freezing, and irradiation, owing to unique intrinsically disordered proteins (IDPs) that protect cells and biomolecules under stress. As mRNA vaccines become increasingly important, protecting these fragile molecules from degradation is crucial, particularly given the expense and inequity associated with cold chain storage systems. To harness tardigrade resilience, we synthetically engineered ten IDP genes from Ramazzottius varieornatus and Hypsibius exemplaris and expressed them in Chinese hamster ovary (CHO) cells and Human Embryonic Kidney (HEK) cells. As a proof of concept, these proteins will be combined with mRNA encoding green fluorescent protein (GFP) and subjected to variations in temperature and heating. GFP mRNA integrity and translational capacity will be assessed in using gel electrophoresis. Demonstrating mRNA protection could enable tardigrade IDP-based stabilization of vaccines, reducing cold chain dependence and improving global vaccine accessibility. https://static.igem.org/peertube/streaming-playlists/hls/82083fcd-fd73-42fe-9d14-3647c93c7407/87ee9540-ce5a-46e8-869f-2fd76345b05a-master.m3u8https://video.igem.org/videos/embed/h4iwnKbAMCb9NgTt8ooz5c1609012025-11-06T18:37:55.422ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cvGmJJzZbwCyoeMbXix96Phttps://video.igem.org/lazy-static/thumbnails/cb2d5c8f-9ade-45b3-8bb0-0d3319ecfcf2.jpgTabor: Judging SessionExcessive nitrogen pollution from agricultural runoff, atmospheric deposition (which have increased because of fossil fuel), and other anthropologic activities have led to significant environmental challenges for the marine environment through eutrophication, the overflow of nutrients. Microorganisms reproduce rapidly in the presence of eutrophication to create HABs, or harmful algae blooms. These algae blooms can cover up to hundreds of kilometers, depriving the environment of oxygen and suffocating species into local extinction. Our review of existing nitrogen reduction methods suggests that they are of limited effectiveness. To address this problem, we formulated a solution to modify marine diatom Phaeodactylum tricornutumlum with a synthetic construct of pPha-T1 and NR gene, which increases the efficiency of nitrate degradation. By enhancing the ability of diatoms to process excess nitrogen, our approach seeks to reduce the nutrient load in marine environments and prevent the uncontrolled growth of harmful algal blooms. https://static.igem.org/peertube/streaming-playlists/hls/5d39f73e-cd65-4600-9c1b-dde36c1fd8b9/311079c8-5c07-4f14-b540-d7a67d5999df-master.m3u8https://video.igem.org/videos/embed/cvGmJJzZbwCyoeMbXix96P1492092025-11-06T18:38:00.619ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6Ev2ZrknVnbBZmAMUspEj5https://video.igem.org/lazy-static/thumbnails/9c16151f-6b6e-477f-8f5e-8fab7f8da321.jpgHongwen School: Judging SessionGlobally, more than 1.3 billion people use tobacco. While the dangers of first- and second-hand smoke are widely recognized, third-hand smoke—residual pollutants that settle on clothing, furniture, walls, and dust—remains an underappreciated health threat. Among its most hazardous constituents are tobacco-specific nitrosamines (TSNAs), formed through the reaction of residual nicotine with airborne nitrite. TSNAs are strongly carcinogenic and highly resistant to degradation. To address this, we propose a dual-enzyme strategy: NicA, NicB, and NicC for the degradation of surface nicotine, and NirS, NorB, and NosZ for the removal of environmental nitrite. By preventing TSNA formation at the source, this biosafe and sustainable enzyme-based spray presents a novel synthetic biology approach to indoor environmental detoxification.https://static.igem.org/peertube/streaming-playlists/hls/2dddd97e-e52b-4340-b4ac-2ffb45013168/e53c3bd4-b0e7-4551-9b1b-2f8ffe505938-master.m3u8https://video.igem.org/videos/embed/6Ev2ZrknVnbBZmAMUspEj51516002025-11-06T18:38:10.012ZYES2025 Judging SessionsNOhttps://video.igem.org/w/x52LYiy2YFSJ8ZZeS2CMJqhttps://video.igem.org/lazy-static/thumbnails/8ed63a90-0e80-4c56-bae3-4128c40fdc9c.jpgHWFLA-Beijing: Judging SessionPlastic pollution has become a global environmental challenge, yet existing plastic degradation technologies suffer from low efficiency and are difficult to scale up. To address this issue, this project aims to screen and engineer high-efficiency plastic-degrading enzymes from microbial sources, construct optimized enzyme genes using synthetic biology approaches, and validate their practical effectiveness in plastic degradation. Through large-scale screening of microbial plastic-degrading enzymes, combined with bioinformatics and gene optimization strategies, this research seeks to enhance degradation efficiency and provide novel approaches for the bioremediation of plastic pollution.https://static.igem.org/peertube/streaming-playlists/hls/fb9b5e1d-d346-48e4-888e-27faecc22ba0/67397a3e-bf26-4530-b72c-3587c1ac5acc-master.m3u8https://video.igem.org/videos/embed/x52LYiy2YFSJ8ZZeS2CMJq1595032025-11-06T18:38:12.296ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uYuUCuLdxBkcR2CYypK4knhttps://video.igem.org/lazy-static/thumbnails/170541ea-0e81-4475-9237-2054f6d9934f.jpgSZ-SHD: Judging SessionHeavy metal pollution poses a growing threat to both ecosystems and human health due to industrial activity. To address this challenge, our iGEM team is engineering the cyanobacterium Synechocystis sp. PCC 6803 as a sustainable platform for heavy metal bioremediation. We have introduced genes encoding phytochelatin synthases (PCSs) and metallothioneins (MTs) under a urea-inducible promoter, enabling the cells to efficiently chelate and reduce metals ions such as cadmium, lead, zinc, and copper into nano particles. To reduce the harvest cost, we developed a self-aggregation system by inducing limonene production, allowing for energy-efficient and chemical-free biomass recovery. In parallel, we are expressing PCS and MT genes in the moss Physcomitrella patens to compare bioremediation performance in different chassis.https://static.igem.org/peertube/streaming-playlists/hls/eaa35931-f19c-416c-acda-0c0c88ab57f7/b29fb5f3-d2be-4a22-b724-f034eae96c8d-master.m3u8https://video.igem.org/videos/embed/uYuUCuLdxBkcR2CYypK4kn1529012025-11-06T18:38:15.545ZYES2025 Judging SessionsNOhttps://video.igem.org/w/9UivZpZikRmK1D7BBZYvY6https://video.igem.org/lazy-static/thumbnails/a11f50b7-8342-4bb3-ac7e-bd7b5e607697.jpgAEI Prep-Taiwan: Judging SessionWe developed a bio-based carbon capture reactor using Emiliania huxleyi to enhance CO₂ fixation through synthetic genetic constructs and audio stimulation. Three gene vectors, DGA1 for biofuel synthesis and NCE103, CA9 for biomineralization for bio-concrete, were expressed and validated in yeast kluyveromyces marxianus. A smart photobioreactor was engineered with an ESP32 microcontroller, integrating temperature regulation, timed illumination, turbidity/thermal monitoring, audio stimulation, and cloud-based data logging. Beyond laboratory validation, the team assessed potential industrial applications via carbon credit modeling aligned with SDGs and developed an educational board game to promote public understanding of carbon trading. This multidisciplinary platform demonstrates a novel integration of synthetic biology, digital systems, and socio-economic tools for scalable carbon capture and sustainability education.https://static.igem.org/peertube/streaming-playlists/hls/481694a1-f135-44de-8a66-b58b4c1dfab9/55ac91c1-d4bf-4c78-8529-8e70bff471d1-master.m3u8https://video.igem.org/videos/embed/9UivZpZikRmK1D7BBZYvY61660062025-11-06T18:38:19.765ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rsfztrXCEPdWD9wpvm4J4rhttps://video.igem.org/lazy-static/thumbnails/0051f744-d470-48f8-8c7a-bfede73072b7.jpgAshesiGhana: Judging SessionCoastal defense structures are important in protecting coastal communities from harsh sea conditions, including huge waves and erosion. However, these structures develop microcracks that progressively expand into larger cavities, compromising structural integrity and endangering coastal populations. Our team addresses this challenge through a multi-faceted approach centered on engineered Vibrio natriegens bacteria that employ biocementation to repair microcracks before they develop into structural failures. We have also designed an optimized coastal structure with enhanced hydrodynamic properties to mitigate erosion more effectively. Our pentacone structure features biosensing capabilities that detect changes in ocean pH and the presence of heavy metals, including mercury, cadmium, and arsenic, providing early warning of environmental deterioration. Coastal degradation often occurs in conjunction with plastic pollution and inadequate ecological monitoring. Our solution integrates educational initiatives to address marine plastic waste. This project integrates synthetic biology and community engagement to design systems that work in harmony with natural processes. https://static.igem.org/peertube/streaming-playlists/hls/ce1ec9b9-d86b-4013-85c2-96c8e3076c47/ba4e3e4c-caa4-4dc9-bd4e-70dec40bded8-master.m3u8https://video.igem.org/videos/embed/rsfztrXCEPdWD9wpvm4J4r1553062025-11-06T18:38:21.810ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6QUKKCw6ShGM1F6KA5cGK6https://video.igem.org/lazy-static/thumbnails/d90ffa31-3601-416b-924f-91af3ca658e9.jpgShenfan-China: Judging SessionLignocellulose is a highly promising renewable resource, but its complex structure hinders degradation. The rumen of ruminants represents a naturally efficient degradation system. This study employed rumen-mimicking microbiota to ferment corn straw in a semi-continuous reactor for volatile fatty acid (VFA) production. Results showed that after 72 hours, VFA concentration reached 8.99 g/L, with hemicellulose, cellulose, and lignin degradation rates of 54.3%, 40.2%, and 8.61%, respectively. At corn straw loading rates of 2.5%, 5.0%, and 8.0%, average VFA concentrations were 8.5, 11.1, and 13.3 g/L, respectively. Metagenomic analysis indicated that low pH and VFA accumulation were the main factors affecting microbial communities, while core genera remained stable. This study provides a theoretical basis for the resource utilization of biomass waste.https://static.igem.org/peertube/streaming-playlists/hls/2f51e7c0-9947-40d3-8e64-653e421d86db/74e7219d-c531-4c86-addf-fc16ead4e8d0-master.m3u8https://video.igem.org/videos/embed/6QUKKCw6ShGM1F6KA5cGK61499012025-11-06T18:38:22.496ZYES2025 Judging SessionsNOhttps://video.igem.org/w/p7t2Ac2QMifzt7btnYX6FGhttps://video.igem.org/lazy-static/thumbnails/9c574038-6ad8-48b9-8d4c-84e7f6a9eec0.jpgSCAU-China: Judging SessionMangrove ecosystems face escalating heavy metal pollution threats. We developed "Surfing TentaRobot"—a tide-adaptive bioremediation platform using engineered Bacillus subtilis. Core innovations: (1) Self-assembling adsorption: TasA-ShMT3 fusion proteins and ΔsinR-tasA ΔepsA chassis achieve effective heavy metal capture. (2) Biomineralization: Dsp-aCA carbonic anhydrase catalyzes MICP, precipitating CaCO₃/MgCO₃ to permanently sequester adsorbed metals and prevent tidal re-mobilization. (3) Osmotic NOT gate enables tidal rhythm function switching: LLM-assisted workflow identified osmotic-responsive PproHJ promoter; TetR-based NOT gate design enables functional switching between adsorption and mineralization. (4) Cross-scale modeling: Six-layer framework spans molecular docking to field deployment, including competitive assembly models explaining capacity limitations, coupling kinetics quantifying mineralization interference, UTide tidal analysis determining optimal deployment parameters, and biofilm growth models guiding operational strategies. (5) Social responsibility: 215+ surveys and educational activities reaching 600+ students integrated stakeholder feedback. This work demonstrates transforming tidal salinity fluctuations from engineering constraints into regulatory signals for coastal ecosystem remediation.https://static.igem.org/peertube/streaming-playlists/hls/bb294edb-0b50-47b7-8ae9-92a0833da4aa/4ec1500a-1474-465e-aa08-ac952cfd391b-master.m3u8https://video.igem.org/videos/embed/p7t2Ac2QMifzt7btnYX6FG1583092025-11-06T18:38:30.063ZYES2025 Judging SessionsNOhttps://video.igem.org/w/eCtZZAzZRnbBphk413ajFthttps://video.igem.org/lazy-static/thumbnails/ad84e221-0e23-42cb-a3e7-8f964edcea70.jpgOUC-Haide: Judging SessionGlobally, nearly 588 million people live with diabetes, and up to 25% of them suffer from chronic, non-healing wounds, facing risks of infection, gangrene, and even amputation. Current conventional therapies are ineffective and cumbersome, exacerbating patient suffering, while advanced treatments remain inaccessible due to high costs, limited functionality, or lack of dynamic regulation. To address this, we introduce “Yeast Medics”—an innovative injectable dressing based on engineered Yarrowia lipolytica and L-DOPA-modified thermosensitive chitosan. This system dynamically senses wound status, displays antimicrobial peptides (Pexiganan) on the yeast surface, and programmatically releases both anti-inflammatory (IL-4) and pro-angiogenic (VEGF) factors. It synergistically addresses the three major challenges of infection, inflammation, and regeneration on a single platform, providing diabetic patients with an integrated, self-driven, low-burden healing solution. https://static.igem.org/peertube/streaming-playlists/hls/6e5ed576-790e-4a3e-9435-467a7742e741/8608fb3d-89f8-4007-9424-6f6c678782d8-master.m3u8https://video.igem.org/videos/embed/eCtZZAzZRnbBphk413ajFt1571042025-11-06T18:38:32.343ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4L5W55QbhoqUbpiTFhx9rdhttps://video.igem.org/lazy-static/thumbnails/25b30a22-433e-45c0-886e-47ee69e739a7.jpgBASIS-China: Judging SessionPerfluoroalkyl and Polyfluoroalkyl Substances (PFAS) contamination is a global concern due to their persistence in water, widespread presence in daily life, and long-term health risks. Among them, perfluorooctanoic acid (PFOA) is the most prevalent and hazardous pollutant. By developing an integrated PFOA & fluoride ions biosensor, optimizing PFOA-degrading enzymes, and designing a systematic hardware platform, we aim to establish a PFOA governance system that integrates detection, biodegradation, and safe processing, providing a practical solution to mitigate environmental and health impacts.https://static.igem.org/peertube/streaming-playlists/hls/1e732e74-8dda-4a95-a8ac-0d4b6cbbd24e/090c6922-2f0f-4b6b-84a8-e3b34151c87f-master.m3u8https://video.igem.org/videos/embed/4L5W55QbhoqUbpiTFhx9rd15830122025-11-06T18:38:37.921ZYES2025 Judging SessionsNOhttps://video.igem.org/w/xcbQxaV5H8tNsub1jWztNPhttps://video.igem.org/lazy-static/thumbnails/adcc340d-3459-46fc-9552-7b776b03c60e.jpgVERITAS-Prudens: Judging SessionPOVANO aims to develop a circular, low-impact protein production platform by engineering the methylotrophic yeast Pichia pastoris to convert CO₂-derived green methanol into high-yield, nutritionally balanced protein for pet food, addressing sustainability challenges from conventional meat- and fish-based feeds. We constructed a pGAPZ-based ovalbumin expression cassette (pGAP–αMF–OVA–6×His–tAOX1), integrated and validated its expression & secretion, and implemented heterologous expression of inositol biosynthesis enzymes (ScIPS/INO1 and EcIMP) to produce myo-inositol for pet health benefits. To improve product quality and scale-up acceptability, we used CRISPR/Cas9 to knock out pyruvate decarboxylase (PpPDC1) and suppress alcoholic volatiles. POVANO demonstrates a controllable, scalable microbial route that can be tailored for amino-acid balance and reduced land, water and greenhouse gas footprints, aligning with SDGs for responsible consumption and climate action. Next steps include yield and nutritional optimization, pilot-scale fermentation, safety/nutritional testing, and life-cycle analysis to quantify environmental impact.https://static.igem.org/peertube/streaming-playlists/hls/fc9b288b-67a4-460b-a49e-516fa673dc2f/a222a295-825c-44f2-a501-5ca5cc7f0334-master.m3u8https://video.igem.org/videos/embed/xcbQxaV5H8tNsub1jWztNP1566012025-11-06T18:38:43.871ZYES2025 Judging SessionsNOhttps://video.igem.org/w/gR3EgFqdBgu9R2rrvQd6RHhttps://video.igem.org/lazy-static/thumbnails/1045a81f-4e99-47d0-8644-da36fea66d3d.jpgMacquarie-Australia: Judging SessionMethanol contamination in alcoholic beverages is a serious global health risk, yet accessible detection methods are lacking. Team MethaNO from Macquarie University proposes two synthetic biology-based biosensors for low-cost, rapid methanol detection. The first design uses a whole-cell E. coli sensor featuring a chimeric histidine kinase combining MxaY (from Paracoccus denitrificans) with CusS (from E. coli), activating a kinase phosphorylation pathway to express a visible blue chromoprotein (AmilCP) in response to methanol. The second design employs a Ca²⁺-PQQ-dependent methanol dehydrogenase (MDH) from Methylorubrum extorquens, expressed and isolated from E. coli to create a cell-free system. MDH oxidizes methanol to formaldehyde, detectable via colorimetric assays. Both biosensors offer scalable, specific, and visual detection of hazardous methanol levels in beverages.https://static.igem.org/peertube/streaming-playlists/hls/805229ef-7aaf-4d2b-a701-13c0a1823ab7/cf4dcbab-daca-4682-b668-72729ea91c84-master.m3u8https://video.igem.org/videos/embed/gR3EgFqdBgu9R2rrvQd6RH1691042025-11-06T18:38:45.509ZYES2025 Judging SessionsNOhttps://video.igem.org/w/af3492T4me7H4nrnULjLrYhttps://video.igem.org/lazy-static/thumbnails/48a0cd74-081e-48f4-91f7-1fcf0edbcd84.jpgMcGill: Judging SessionOne of nature’s greatest feats is multicellularity—joining together single cells into a whole that is greater than the sum of its parts. Cohera is a complete toolkit for multicellular engineering, allowing synthetic biologists to access the full potential of cell-cell adhesion. Our system enables the creation of microbial networks that can be formed and dissolved on command using a collection of membrane-displayed proteins. Our Model, CoheraTune, expands the range of environments in which our tool operates by strengthening the core of our project at the molecular level. At the macroscopic level, bioengineers can leverage Cohera to solve problems in diverse fields. To facilitate the use of our system as a foundational tool, we developed human-centred roadmaps for applications spanning all iGEM plazas. Cohera streamlines the process of engineering cell-cell adhesion, unlocking endless possibilities. https://static.igem.org/peertube/streaming-playlists/hls/4ad7ed36-6681-4a9e-8f95-277969c6b2e2/a89c57f9-a3f7-44e4-ae50-40c8f1a5393c-master.m3u8https://video.igem.org/videos/embed/af3492T4me7H4nrnULjLrY16690452025-11-06T18:38:52.975ZYES2025 Judging SessionsNOhttps://video.igem.org/w/mGjVKqWPegPbVXQbDuntpThttps://video.igem.org/lazy-static/thumbnails/7a145672-63fe-4aa6-9824-b8cdac6d5178.jpgAustin-UTexas: Judging SessionRapid growth of algae in response to environmental pressures, such as climate change, has increased cyanotoxin prevalence in freshwater ecosystems, exceeding safety standards. The most prevalent cyanotoxins produced are microcystins, known to cause harm to humans and animals upon ingestion. Current methods of identifying microcystins involve complex and expensive quantitative assays, which are impractical for field deployment. Our team explored a method to safely detect and degrade these toxins by engineering Acinetobacter baylyi (ADP1) to perform as a biosensor and biodegrader. The system detects environmental DNA (eDNA) released by microcystin-producing cyanobacteria. Upon detection of a target region of DNA within the microcystin gene pathway, the biosensor will activate genes responsible for enzymatic microcystin degradation, providing a potential strategy for eliminating microcystins.https://static.igem.org/peertube/streaming-playlists/hls/a7983020-7339-4acd-8fe5-4f75b7d77add/83f6fb58-578e-4f62-9c2f-983c99111bb8-master.m3u8https://video.igem.org/videos/embed/mGjVKqWPegPbVXQbDuntpT1554012025-11-06T18:38:57.712ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nd91b4js1KodYfzUSKnjm3https://video.igem.org/lazy-static/thumbnails/1f213753-a3a1-4e2e-b4f7-374178585928.jpgTU-Dresden: Judging SessionRNA is a versatile biomolecule functioning as both messenger and catalyst. Understanding its dynamics, localization, and expression in living cells is crucial for decoding cellular function. Existing RNA imaging methods often require fixation or genetic modification and struggle to detect low-abundance RNAs due to poor signal-to-noise ratio. Here, we introduce TRAPS – Targeted RNA Activated Phase Separation, a novel and modular approach for in vivo RNA detection. TRAPS uses catalytically inactive Cas13 fused to GFP-tagged scaffold domains, forming fluorescent condensates upon multivalent RNA binding. This enables simple, real-time visualization and flexible adaption. Our system allows detection of endogenous RNAs with improved sensitivity and temporal resolution. As proof of concept, we targeted mCherry mRNA in S. cerevisiae. Combined with our software SEASTAR (Side-Effect Aware Sequence Targeting & Ranking) for optimal site selection, TRAPS offers an accessible, versatile platform for RNA studies in living cells and future iGEM applications. https://static.igem.org/peertube/streaming-playlists/hls/abc1c4e4-e082-44d6-8f42-4d9ef6c98eca/f54f5608-059f-480b-b63c-0be0eed4e10f-master.m3u8https://video.igem.org/videos/embed/nd91b4js1KodYfzUSKnjm31537042025-11-06T18:38:58.754ZYES2025 Judging SessionsNOhttps://video.igem.org/w/v9h7RPC3x4GDg6D9bmtjJphttps://video.igem.org/lazy-static/thumbnails/190d0eeb-43de-451f-8f0e-22069435ef8c.jpgBologna: Judging SessionOur project involves the design of HERO (High-Performance Engineered Rhodococcus Opacus), an engineered Rhodococcus opacus PD630 strain designed as an advanced chassis for bioremediation applications. Specifically, we designed a genomic Cre/LoxP-based system for a precise, safe genes integration. In addition, we expanded both the wet lab and dry lab tools available for this organism, enabling more efficient genome manipulation and metabolic engineering for pollutant degradation. More precisely, we have developed a library of characterized promoters for controlled gene expression. To support its practical application, we created two complementary platforms: a rapid colorimetric biosensor for quantifying triacylglycerol accumulation, which is a key indicator of R. opacus growth and metabolic activity, and a computational tool for predicting optimal metabolic pathways and identifying candidate genes for pollutant degradation. Our project aims to enable HERO to be customized and easy-to-used for diverse environmental pollutants, bridging the gap between fundamental research and real-world bioremediation solutions. https://static.igem.org/peertube/streaming-playlists/hls/ec00e78f-3bd3-4b9f-927e-15b5c9211b5b/8ccce9e8-d255-4808-97cd-ef4aaff68864-master.m3u8https://video.igem.org/videos/embed/v9h7RPC3x4GDg6D9bmtjJp1559052025-11-06T18:39:00.410ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5mRQzDVeKuFpT4Hp1rjqkVhttps://video.igem.org/lazy-static/thumbnails/c8d3f281-b095-49de-89e8-af6290f53dd2.jpgEHSBNU: Judging SessionTardigrades can survive harsh conditions by entering cryptobiosis under protection of several proteins, which we found has the potential to improve current cell storage and transportation methods. Inspired by it, we designed a project to improve cells storage and transportation in biotech programs by introducing these proteins through Bac-to-Bac system. Through DNA-electrophoresis, qPCR, Western-Blotting and phenotypic tests, we confirmed that these proteins could effectively protect cells and improve viability, suggesting that tardigrade-derived proteins offer a potential solution of better and cheaper cell storage and transportation. Based on such results, we designed a prototype for commercialization. Then, we summarized demands through lab interviews and investigation, which guided us to improve our prototype and develop marketing strategies. Beyond commercial practices, we also explored the project's educational potential. We promoted our project on social media to spark public interest and designed tardigrade-featured gifts and interactions to reach researchers and the public.https://static.igem.org/peertube/streaming-playlists/hls/234e24bf-7259-40ee-a15b-560f9657e083/41fe2a46-958a-4a0c-9e73-d8ada8f94b91-master.m3u8https://video.igem.org/videos/embed/5mRQzDVeKuFpT4Hp1rjqkV1489032025-11-06T18:39:03.319ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ngkFpCC1ft39MbCeBdkgxJhttps://video.igem.org/lazy-static/thumbnails/4757656f-f9c6-4b06-9484-ab006fa29eaf.jpgSFLS-Shenzhen: Judging SessionCurrently, the primary market applications of 1,8-cineole (Eucalyptol) are concentrated in perfumes, essential oils, and food processing. However, few have utilized 1,8-cineole for producing pharmaceuticals or skincare products. The key issue lies in the current bottleneck of purifying the component from plants (purity generally only reaches 80%-85%), coupled with the fact that the active component is highly prone to thermal decomposition, and traditional extraction processes are costly. In contrast, our production of 1,8-cineole using synthetic biology methods theoretically enables high purity, high efficiency, stable, and controllable production. This is precisely the key to addressing the pain points of traditional processes and enhancing product quality. Freed from the constraints of high cost and low purity, 1,8-cineole, leveraging its multi-target anti-acne capabilities including inhibiting Cutibacterium acnes, reducing inflammatory responses, and clearing excess sebum, holds promise as a novel anti-acne product superior to current single-mechanism options on the market.https://static.igem.org/peertube/streaming-playlists/hls/ac343240-5ebc-4f8b-838d-654cc5f25624/c881697e-b239-4dce-a8b7-9bf2c6d51cd8-master.m3u8https://video.igem.org/videos/embed/ngkFpCC1ft39MbCeBdkgxJ1607012025-11-06T18:39:21.711ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vRSTpzjunoFXMsRnWP8EW1https://video.igem.org/lazy-static/thumbnails/d9677f0f-5732-4eed-8517-8371161c1c94.jpgTsinglan: Judging SessionAllergic reactions are becoming an increasingly serious public health issue worldwide, especially in Guangdong. The incidence of allergic diseases is continuously rising, which not only affects the quality of life of patients but also imposes a burden on the medical system. Polyvalent vaccines are an important direction for future vaccine research and development. They have significant advantages in enhancing immune efficacy, reducing the number of vaccinations, increasing vaccine coverage, and reducing costs. This project, based on genetic engineering and nanotechnology, combines allergic immunotherapy to develop polyvalent vaccines, aiming to reshape the body's immune system and improve the body's immune tolerance to allergens.https://static.igem.org/peertube/streaming-playlists/hls/f1cfd35f-99f0-45d4-aebe-38152f6b521c/620732cc-fee6-43bd-bbf8-aae6df40177c-master.m3u8https://video.igem.org/videos/embed/vRSTpzjunoFXMsRnWP8EW11519042025-11-06T18:39:27.891ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uBAvNDwmeXmqK5cQZBJXm7https://video.igem.org/lazy-static/thumbnails/eed07109-9601-483b-8e65-bccb682df90a.jpgVIT-Vellore: Judging SessionAmbergris, a rare fragrance fixative produced in the digestive tract of sperm whales (Physeter macrocephalus), is highly valued in perfumery but raises ethical and environmental concerns due to its scarcity and link to illegal trade. To address this, Team VIT-Vellore aims to biosynthesize ambrein, the key triterpenoid component of ambergris, using engineered Escherichia coli. By integrating squalene synthase, squalene-hopene cyclase, and tetraprenyl β-curcumene cyclase into the MEP pathway, our system converts farnesyl pyrophosphate (FPP) into ambrein through a renewable, controlled process. This bio-based approach provides an ethical, consistent, and eco-friendly alternative to whale-derived ambergris. Aligned with UN SDGs 12, 14, 4, and 17, our project fosters responsible innovation, marine conservation, education, and inclusivity. Through open-access learning and interdisciplinary collaboration, VIT-Vellore envisions a future where biotechnology unites sustainability, ethics, and creativity to transform the fragrance industry.https://static.igem.org/peertube/streaming-playlists/hls/e7b82f31-eed1-469f-aff6-4b7ff8850d2a/8815bc8d-01f3-4abd-b7c3-4ecc45cada9a-master.m3u8https://video.igem.org/videos/embed/uBAvNDwmeXmqK5cQZBJXm714060132025-11-06T18:39:29.190ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vpmjJVB8riWY2S46AbcCA9https://video.igem.org/lazy-static/thumbnails/82b0e83d-c83f-4443-acfb-0312502024a9.jpgBANZ-SZA: Judging SessionAs the world places increasing emphasis on health and sugar control, sugar-free recipes have sparked a trend across major platforms. The global "SugarSmart" initiative has also been launched, leading to growing discussions and use of sugar substitutes. In our project, we employed genetic engineering techniques to develop microbial strains that produce Thaumatin, a protein-based sweetener. Thaumatin is a natural sweet-tasting protein—a low-calorie, plant-derived sweetener—meaning this technology holds promise for alleviating health issues caused by sugar consumption. Through experiments, we tested the protein's activity under various conditions, thereby validating the feasibility of applying this technology in practice. In the future, our project could be developed into sugar-reducing food products to help people maintain better health.https://static.igem.org/peertube/streaming-playlists/hls/ee1ba704-3558-4378-a859-94a8d9f66d24/a53d243c-034e-43ef-b308-d387dd935bc9-master.m3u8https://video.igem.org/videos/embed/vpmjJVB8riWY2S46AbcCA91796062025-11-06T18:39:34.612ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rWQn4zZRmw2nJ6rjNZG3zFhttps://video.igem.org/lazy-static/thumbnails/4ed9c456-3d18-40de-9dee-0f48bf9a0992.jpgBohemiaBio: Judging SessionBeer is an important part of our culture, so we began our project by talking with brewers to understand their challenges. From these discussions, we learned that hops are essential mainly for providing bitterness. Guided by their feedback, we focused on reproducing this bitterness in yeast. Using untargeted metabolomics, we identified α-acids as our target molecules for biosynthesis. Through iterative Design–Build–Test–Learn cycles, we introduced a construct into S. cerevisiae that enables the production of phlorisovalerophenone—the precursor of α- and β-acids—verified using both targeted and untargeted metabolomics. Our work was carried out in close contact with breweries, scientists, and the public to ensure responsible design and realistic applications. For the future, we plan to implement additional brewer-desired compounds such as xanthohumol and anthocyanins. Our project demonstrates how synthetic biology can merge innovation with brewing tradition by empowering yeast to produce hop-derived flavor precursors in an environmentally responsible way.https://static.igem.org/peertube/streaming-playlists/hls/d21c6f56-f5c1-42c2-9aa4-fe733ee59f79/a185741e-934b-4ea1-b08f-39858ac3d8b1-master.m3u8https://video.igem.org/videos/embed/rWQn4zZRmw2nJ6rjNZG3zF1671032025-11-06T18:39:38.617ZYES2025 Judging SessionsNOhttps://video.igem.org/w/77P2AtyitSxGDjGEEDQjcHhttps://video.igem.org/lazy-static/thumbnails/d7440bbc-c403-45cd-a9fa-f2242424d77a.jpgHUBU-WuHan: Judging SessionArsenic contamination in rice paddies threatens food safety and environmental health. Traditional large-instrument-based monitoring is costly and unsuitable for on-site rapid screening. To solve this, our project develops a novel arsenic biosensor via the "niche-matching" principle, sourcing key elements from Cupriavidus metallidurans CML2 (a rice endophyte adapted to paddies). We construct an "AND-gate-like" genetic circuit with a split-GFP system to reduce basal leakage and boost signal-to-noise ratio, and optimize performance through multiple "Design-Build-Test-Learn" (DBTL) cycles for sensitive, specific arsenic detection. This biosensor enables on-site paddy arsenic monitoring and lays a foundation for future "detection-remediation" microbial agents, aiding sustainable agriculture and environmental protection.https://static.igem.org/peertube/streaming-playlists/hls/318a46bb-9b73-449e-ad61-f09f4df1cd3f/c240429c-eecb-4011-816f-c609f717a820-master.m3u8https://video.igem.org/videos/embed/77P2AtyitSxGDjGEEDQjcH1488012025-11-06T18:39:41.462ZYES2025 Judging SessionsNOhttps://video.igem.org/w/p8Y9fNZYgEuGPbL38Shcyqhttps://video.igem.org/lazy-static/thumbnails/9be64642-78dc-4746-aa2d-daf87481bd09.jpgImperial: Judging SessionThe current model of meat production is environmentally unsustainable. Cultivated meat offers an alternative, yet remains hindered by high production costs, particularly by recombinant growth factors that constitute up to 70% of expenses. We tackle this by engineering a Komagataella phaffii chassis, Mannoless, designed to reduce exopolysaccharide secretion and improve yield through targeted modifications in Hoc1, Rho1, and PMI. We also developed BioKernel, an open-access, no-code Bayesian optimisation framework that accelerates design and strain engineering. Guided by our conversations with world-leading experts across different sectors, we explored unspoken pitfalls of scaling in yeast chassis. Our education efforts addressed skepticism toward synthetic biology, as innovation cannot scale without public trust and investor confidence. Finally, we were on a mission to make our outputs fully open-access reaffirming our belief that science cannot scale without non-proprietary technology. We aimed to remove cost and licensing barriers in biomanufacturing, accelerating a sustainable future for food.https://static.igem.org/peertube/streaming-playlists/hls/bb5efe98-5990-4f1b-a9ea-5213fdd40964/9ef899ba-b1d8-433e-bbba-1b832e464889-master.m3u8https://video.igem.org/videos/embed/p8Y9fNZYgEuGPbL38Shcyq1529052025-11-06T18:39:42.249ZYES2025 Judging SessionsNOhttps://video.igem.org/w/e916R7DWKHfeYnaUwcNvhXhttps://video.igem.org/lazy-static/thumbnails/23a4c35c-15e1-46c2-b1a6-f35805cfad60.jpgLINKS-China: Judging SessionStraw, the dry stalks of cereal crops left after harvest, represents a massive global agricultural by-product with approximately 5.3 billion tons generated annually worldwide. 2025 LINKS-China has developed an integrated chemical and enzymatic process to extract high-purity cellulose from straw. We employed Pichia pastoris to express enzymes— Laccase, VP and LPMO—and utilized a yeast surface displayed protein-scaffold enabling synergistic enzymatic action for degradation of hemicellulose and lignin. We successfully produced Lyocell fibers from extracted corn straw cellulose. We engineered two recombinant proteins: HBP from squid beak and EV1 from bagworm silk，for fiber enhancing. The fiber with EV1 protein achieved a remarkable tensile strength of 2.56 cN/dtex, meeting the requirements for textile applications. Through comprehensive interviews with farmers, textile industry professionals, and fashion designers, we have developed a complete business plan. We envision that these vegan, sustainable, and biodegradable fibers will pioneer a green revolution.https://static.igem.org/peertube/streaming-playlists/hls/6a64d09a-f3a4-40c2-bcbb-e3c33deac90b/8de83b84-8d75-4a9f-b819-2772f0f269cf-master.m3u8https://video.igem.org/videos/embed/e916R7DWKHfeYnaUwcNvhX1738082025-11-06T18:39:48.906ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ku9kW3DAxH3TP61zqu7qFzhttps://video.igem.org/lazy-static/thumbnails/db0d439e-dbe4-42c0-b7c1-4d8cb3fb6e19.jpgNFLSHS-CHINA: Judging SessionAstaxanthin is a potent antioxidant with anti-aging properties and is widely sought after by manufacturers of cosmetics and skin care products. However, current production is low, resulting in high market prices. Our solution is to improve astaxanthin production using Escherichia coli as a cellular factory. For astaxanthin synthesis, the astaxanthin synthesis pathway including seven genes were chosen and they were expressed in E. coli using two T7 promoters of the pET-Duet-1 vector. In addition, we modified β-carotene hydroxylase using rational design, achieving four HpCrtZ mutants with high catalytic activities.Then we induced the expression by IPTG to synthesize astaxanthin in E. coli efficiently. Finally we obtained astaxanthin powder by freeze-drying, made astaxanthin-containing oil. For applications, we designed three target products including essence, face mask and opera makeup pigments. Our technology is mature, cost-effective and environmentally sustainable. We aim to meet the market demand for high quality astaxanthin through this approach.https://static.igem.org/peertube/streaming-playlists/hls/9dcb9a20-7aaa-451b-a638-6bae17f07b47/83b2ed17-7d01-48c5-b698-0071ff1bf08f-master.m3u8https://video.igem.org/videos/embed/ku9kW3DAxH3TP61zqu7qFz1563072025-11-06T18:39:51.055ZYES2025 Judging SessionsNOhttps://video.igem.org/w/wHaYe2mpyD81sqweoYeegrhttps://video.igem.org/lazy-static/thumbnails/51039bdd-7ecb-40ae-adf1-59ed74a6a40f.jpgDBHS-CA: Judging SessionInflammatory Bowel Disease (IBD) is a chronic condition characterized by inflammation in the gastrointestinal tract. The cause of IBD is an overreactive immune response, leading to prolonged inflammation and tissue damage. A key regulator of such inflammation, Interleukin-10 (IL-10), plays a fundamental role in modulating inflammation and maintaining cell homeostasis by protecting the body from an uncontrolled immune response by inhibiting pro-inflammatory cytokines like TNF-α and IL-6. However, IL-10’s therapeutic potential is severely limited by its structural instability due to its homodimer nature and easy degradation within the body. This instability reduces its effectiveness as a long-term treatment leaving patients with limited options for prolonged IBD treatments. To address this issue, we propose a probiotic-based approach, engineering a mutated more stable form of Il-10 (MIL-10). Delivered through dairy products like yogurt, this system would provide MIL-10 production in reaction to pro-inflammatory cytokines, ensuring sustained inflammation control for diseases like IBD. https://static.igem.org/peertube/streaming-playlists/hls/f8b1cc58-636b-49ef-8c9e-ae4ae31369db/f3d38ddc-6667-454b-8535-21e8e08c1e6d-master.m3u8https://video.igem.org/videos/embed/wHaYe2mpyD81sqweoYeegr1456032025-11-06T18:39:57.419ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pQoHns8EwR9yEAJhrXBHV9https://video.igem.org/lazy-static/thumbnails/f3ddec6e-b164-4b4b-b6f8-70644faca198.jpgWestview-SanDiego: Judging SessionThe growing use of non-biodegradable plastics has caused major environmental harm, as these materials persist for centuries and resist recycling. Polyhydroxybutyrate (PHB) offers a biodegradable alternative, but its slow degradation and recycling limit its effectiveness. In Project PHoeBe, the Westview iGEM team investigates two newly identified enzymes, a PHB depolymerase and a dehydrogenase, found through metagenomic analysis, to improve PHB breakdown. Level 1 plasmids containing these genes were conjugated into knockout Alteromonas macleodii, and tests in a simulated ocean environment showed evidence of PHB degradation. Computational modeling also identified a potential catalytic triad in the depolymerase. Through outreach, we educated the public on plastic pollution, waste reduction, and the environmental promise of PHB. Our project represents an early step toward more effective, sustainable management of biodegradable plastics.https://static.igem.org/peertube/streaming-playlists/hls/c103e33f-c1cc-48c2-9e61-f850ef693056/f6f53eb2-5362-41a9-90de-155c7424052b-master.m3u8https://video.igem.org/videos/embed/pQoHns8EwR9yEAJhrXBHV91631042025-11-06T18:40:10.073ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pp9XSmDvZSVbUetPfQ9rY7https://video.igem.org/lazy-static/thumbnails/1e84e24b-7eaf-4819-983f-72cb05a67768.jpgToronto: Judging SessionAntibiotic resistance is a growing global threat that requires new antimicrobial solutions. Phage therapy offers promise but is limited by the slow process of matching phage receptor-binding proteins (RBPs) to bacteria. Current prediction models lack generalizability and reliability. Mystiphage’s PHORAGE platform uses generative AI to identify and design synthetic RBPs for specific bacterial targets. By leveraging a curated RBP dataset and combining ESM-3 hallucination, Boltz-2 co-folding, and Markov Chain Monte Carlo validation, PHORAGE develops high-affinity RBPs. These predictions are validated through a wet lab pipeline including cloning, expression, and phage spotting assays. The EVADE hardware system delivers targeted therapy to the gut microbiome, connecting computational prediction with biological validation. This integration reduces the time from design to therapeutic use from months to hours. Mystiphage’s approach enables scalable, adaptive, and personalized phage therapies to combat bacterial pathogens.https://static.igem.org/peertube/streaming-playlists/hls/bd7dd1d6-ec26-4ba2-aaa6-f3acf0e7ae7a/0969d03a-e09a-4009-8268-99e45bbc6d85-master.m3u8https://video.igem.org/videos/embed/pp9XSmDvZSVbUetPfQ9rY71563032025-11-06T18:40:10.874ZYES2025 Judging SessionsNOhttps://video.igem.org/w/mfTkHTfMKcG3PsZBRZ2qJohttps://video.igem.org/lazy-static/thumbnails/10870098-46d2-4e24-94c6-c369c60bbf71.jpgUtrecht: Judging SessionChronic diseases often require lifelong medication, yet poor adherence remains a major barrier to effective treatment. This leads to increased mortality, higher healthcare costs, and reduced quality of life. In Parkinsons disease lack of adherence is caused by the symptoms of the disease, like memory loss and dyskinesia. Therefore, we propose the development of a self-sustaining drug delivery platform using engineered commensal gut bacteria. As a proof of concept, we aim to modify Pseudomonas alcaligenes to autonomously produce and secrete L-DOPA within the gut. To validate the constructs we used fluorescent reporter proteins and L-DOPA biosynthesis. To visualize P. alcaligenes colonization, protein expression and secretion we will use its host: zebrafish. To test our bacteria in a mammalian system we used a gut transwell system. We envision that our project contributes to a living microbial biofactory approach to drug delivery, reducing the need for continuous self-administration. https://static.igem.org/peertube/streaming-playlists/hls/a40ad34d-8526-47dd-8dd2-6d61ab465492/1d1031d0-d6d7-4564-992e-c988f4332417-master.m3u8https://video.igem.org/videos/embed/mfTkHTfMKcG3PsZBRZ2qJo1628002025-11-06T18:40:44.575ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3rXysbd9XighyD9dtFLZxehttps://video.igem.org/lazy-static/thumbnails/96606116-d84d-490c-b96f-048d863469a0.jpgGroningen: Judging SessionAntibiotic resistance is one of the most critical emerging threats to global healthcare, with current projections indicating it will surpass cancer as a leading cause of mortality in the coming decades. Conventional methods for identifying antibiotic resistant infections are time-consuming, as they depend on culturing bacteria in the presence of antibiotics. This diagnosis delay often leads to trial-and-error treatment strategies, which not only compromise patient outcomes but also promote the spread of resistance. To address this challenge, we are developing CRIKIT, a rapid and versatile diagnostic tool based on using Cas13 and programmable guide RNAs (gRNAs) directly from cell lysate to target bacterial transcripts of specific antibiotic resistance genes. By adding a fluorescent reporter we use Cas13’s collateral cleavage activity to generate a measurable fluorescent signal. This approach will enable clinicians to make rapid, targeted decisions about antibiotic therapies, reducing the reliance on empirical treatments and improving clinical outcomes. https://static.igem.org/peertube/streaming-playlists/hls/13d21c80-3c30-4d4f-8ca3-1adce8f3a447/7eeea7ba-8fde-49a8-a3ac-c51ab3e8a7da-master.m3u8https://video.igem.org/videos/embed/3rXysbd9XighyD9dtFLZxe1264582025-11-06T18:41:29.437ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8L1nxW5o6Zr18c7Qdb4nbBhttps://video.igem.org/lazy-static/thumbnails/6b813e78-9bef-47fe-acc4-442254503ee4.jpgWellington Shanghai: Judging SessionWe aimed to combat marine biofouling to reduce wasted fuel in the shipping industry caused by drag. We identified cp19k from previous iGEM projects as a key adhesive protein in barnacle cement. We optimised expression of cp19k in E. coli BL21 (DE3), then tested a range of proteases to identify which one(s) degrade it most effectively. This high school project did not benefit from usual university collaborations, and we attempted to complete all experiments in house, we created a programme to develop skills in younger students that would equip them for later involvement in the iGEM. We aimed for a safe, inclusive and collaborative environment advertising the team widely and keeping costs to a minimum for all. We have educated the school community and beyond through the iGEM process. https://static.igem.org/peertube/streaming-playlists/hls/3ed4ecec-6f99-43ba-8ae8-10ce5e7bcef3/04ce617d-c9d2-4f71-aee6-2aa7e620593e-master.m3u8https://video.igem.org/videos/embed/8L1nxW5o6Zr18c7Qdb4nbB1535052025-11-06T18:41:58.512ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4v5pQi2VBcjU2Y1MLjdUsohttps://video.igem.org/lazy-static/thumbnails/655df72f-7912-4f8c-9b96-6cd6ac7ecb17.jpgVIS-Romania: Judging SessionPROMNESIS is a synthetic biology therapeutic platform targeting multiple aspects of Alzheimer’s disease (AD) pathology: (i) intracellular tau pathology, addressed by Tau Tuner and (ii) extracellular tau “seeds” that spread neurofibrillary tangles, targeted by TRI-LYTAC. Our system's third component, a logic gate for the detection of cellular stress environment, is used as a safety precaution, activating downstream therapeutic expression only in disease-relevant contexts. The TauTuner consists of an optogenetically controlled phosphatase, which performs dephosphorylation of intracellular tau, preventing its aggregation and restore microtubule stability. The TRI-LYTAC is a lysosome-targeting chimera which combines antibodies with TfR-binding peptide and IGF-2(F19L) dimer. Its development was primarily driven by the need to target and degrade extracellular tau seed, as well as to achieve blood–brain barrier (BBB) transcytosis. The experiments performed and models we developed show that PROMNESIS can work as a complete, modular treatment system.https://static.igem.org/peertube/streaming-playlists/hls/1c5ab420-fe73-45aa-a89d-9f451f7ba90a/6ee5a30e-1073-4d71-b4bd-a09c94fdeb69-master.m3u8https://video.igem.org/videos/embed/4v5pQi2VBcjU2Y1MLjdUso1252052025-11-06T18:42:03.640ZYES2025 Judging SessionsNOhttps://video.igem.org/w/hgVxHvokfuGU5XXxNK6zCBhttps://video.igem.org/lazy-static/thumbnails/80f2c32b-abac-4373-9045-42571a1451b3.jpgWashington: Judging SessionPseudomonas aeruginosa (PA) is a pathogenic bacterium that is responsible for an estimated 7% of all healthcare-associated infections. Exotoxin A (ETA) is one major virulence factor of PA. As a result, therapeutics targeting the inhibition of ETA activity are under development. ETA enters human cells through the CD91 receptor, activates via furin cleavage, and modifies eukaryotic elongation factor 2, inhibiting protein synthesis and inducing apoptosis. Although some inhibitors show signs of success, they consist of either small-molecule inhibitors, which have significant off-target effects, or antibodies, which cannot be produced efficiently due to size and folding properties. To address these limitations, we utilize RF diffusion, Protein MPNN, and AlphaFold to create a protein inhibitor that binds specifically to ETA's receptor binding domain. We tested these computationally designed inhibitors by expressing and purifying them, assessing their binding affinity to ETA and evaluating their ability to prevent ETA-mediated cell death using cell-based assays. https://static.igem.org/peertube/streaming-playlists/hls/83cb5fdf-f24c-40f9-aa07-dfae1b97e367/307c9141-4fae-4108-b639-5ed0235a050d-master.m3u8https://video.igem.org/videos/embed/hgVxHvokfuGU5XXxNK6zCB1486022025-11-06T18:42:45.972ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5jm2fvQLQZRp27XSip3b8Yhttps://video.igem.org/lazy-static/thumbnails/b3466a64-e17f-490e-8332-0d927f51f06d.jpgSubCat-Greatbay: Judging SessionWe plan to develop a special "nanoflower" capable of rapidly and accurately detecting bacteria. This nanoflower has two key functions: first, it uses "phage tail fiber proteins" to precisely bind to bacteria; second, its interior contains peroxidase, enabling a colorimetric reaction. The large specific surface area of the nanoflower and the gold-platinum nanoparticles amplifies the signal, making the detection result more pronounced. Afterwards, a dedicated mobile app can scan the colorimetric result and analyze the RGB values to directly determine the presence of bacteria.https://static.igem.org/peertube/streaming-playlists/hls/22f447fe-2ea4-431d-b454-87572797e396/4c2cbbac-1cd8-490f-9094-03dbf2149606-master.m3u8https://video.igem.org/videos/embed/5jm2fvQLQZRp27XSip3b8Y1229032025-11-06T18:43:22.974ZYES2025 Judging SessionsNOhttps://video.igem.org/w/kZVv8eD2HwgzsEknkbEbXQhttps://video.igem.org/lazy-static/thumbnails/381d6253-3594-4c99-8893-7f4c7829ee06.jpgJiashu-China: Judging SessionCommercial spaceflight is rapidly evolving from experimental trials to large-scale operations, with companies like SpaceX, Blue Origin, and Virgin Galactic—and China’s own emerging space sector—driving down launch costs and opening the door to space tourism, lunar bases, and Mars colonization. Yet long-duration missions pose serious health risks, particularly microgravity-induced muscle loss and mood disorders. We address this challenge by engineering E. coli Nissle 1917 with a de novo HMB biosynthesis pathway to combat sarcopenia and a serotonin pathway to support mental well-being, creating a dual-function probiotic to safeguard astronaut health and enable sustainable human presence in space.https://static.igem.org/peertube/streaming-playlists/hls/a1f40055-4eea-40ad-8425-dbb98f97403e/76071ef3-8059-4b45-bc78-ca11cc1ca25d-master.m3u8https://video.igem.org/videos/embed/kZVv8eD2HwgzsEknkbEbXQ1800032025-11-06T18:43:38.220ZYES2025 Judging SessionsNOhttps://video.igem.org/w/abBx4L5po1gy1x3kwRVzpHhttps://video.igem.org/lazy-static/thumbnails/d3382cdf-7b15-4cc8-9f5f-e6ea924c4f94.jpgJilin-China: Judging SessionTo advance sustainable and programmable genetic regulation in synthetic biology, we engineered an orally deliverable microbial platform that functionally couple gene expression to dietary metabolites, embodying the principle of Medicine-Food Homology. By incorporating a ferulic acid-responsive regulatory circuit, our system achieves diet-inducible control of target gene expression under physiologically relevant conditions. A stabilized GLP-1 analogue was employed as a model payload to verify the system’s responsiveness and molecular reliability. Operational safety was ensured through a dual-layer safeguard that integrates an engineered bacterial delivery system and a quorum-sensing-based self-limitation mechanism. Guided by our 5C Human Practices framework, emphasizing co-design and reflective integration, our project demonstrates a responsible and modular approach to system construction. Collectively, this work establishes a versatile and robust platform for translating dietary signals into programmable genetic responses, offering new possibilities for foundational research in metabolic regulation and precision biodesign. https://static.igem.org/peertube/streaming-playlists/hls/4a5d95d1-c01f-4b62-9577-5d8fdd73ecdb/add8cc49-c7c8-4a94-a14c-b43444271807-master.m3u8https://video.igem.org/videos/embed/abBx4L5po1gy1x3kwRVzpH16510152025-11-06T18:43:45.652ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1zYTuNtpkna7BADBL3CbLDhttps://video.igem.org/lazy-static/thumbnails/1640001c-1fa5-4347-992a-694f7c4f8135.jpgBUCT: Judging SessionPolyester plastics (PET/PBAT/PLA) persist in marine environments and form harmful microplastics. To tackle source-level persistence and end-of-pipe remediation we combined marine-enzyme discovery, computational protein redesign and AI-driven mutation design, inorganic CaCO₃–SiO₂ immobilization compatible with melt processing, and an E. coli dual-anchor surface-display (adhesion + SpyTag/SpyCatcher-tethered hydrolase). A marine hydrolase (“2013”) was mined, characterized and redesigned to a soluble active variant (SEQ4); immobilization conferred thermal robustness with ≈40% activity retained after brief high-temperature treatment, supporting processing compatibility. Enzyme-containing films exhibited accelerated surface erosion in 28-day real-seawater assays; the dual-anchor strain enhanced local TPA release versus controls; and a rapid hydroxylation–Fenton fluorescence assay enabled sensitive TPA quantification. Future work will optimize kinetics for high-crystallinity PET, scale immobilization/compounding to pilot, integrate a genetically encoded TPA biosensor, and assess environmental fate, safety and regulatory pathways.https://static.igem.org/peertube/streaming-playlists/hls/04be9a51-8ac3-47e4-abc0-c19072b6ec05/6b956f2d-285a-47b9-920a-71600d403cea-master.m3u8https://video.igem.org/videos/embed/1zYTuNtpkna7BADBL3CbLD1732042025-11-06T18:43:58.514ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4t7CkwBtqoyXjEozUNT4dFhttps://video.igem.org/lazy-static/thumbnails/a37d6bee-b3e1-44b9-b28b-e1128f0b755b.jpgTJUSLS-China: Judging SessionThe marine metagenome harbors numerous functional genes that have yet to be discovered and engineered for utilization. Currently, most of the known wild-type PET-degrading enzymes and engineered high-activity PET-degrading enzymes such as IsPETase and ICCG are derived from terrestrial sources and are suitable for functioning in low-salt concentration conditions, thus their application scenarios are greatly restricted by salt concentration. At present, microplastic pollution in marine environments is severe, and one major source of marine microplastics is high salinity wastewater. The main objective of our project is to solve the degradation problem of PET microplastics in high-salt water bodies by mining PET-degrading enzymes from the ocean and conducting targeted modifications to enhance their activity.https://static.igem.org/peertube/streaming-playlists/hls/1c1494dc-aebb-4b73-8a41-4c69648be8e3/2a6b6ffc-98e4-41dd-9063-788150aa6a33-master.m3u8https://video.igem.org/videos/embed/4t7CkwBtqoyXjEozUNT4dF1578072025-11-06T18:44:00.697ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sFVy78SaQeitpzSwq6BkN5https://video.igem.org/lazy-static/thumbnails/ea94f50c-9826-41c4-b296-d3c2491bdad2.jpgLZU-MEDICINE-CHINA: Judging SessionThis project aims to develop an intelligent engineered bacterium for the precise treatment of perioperative gut microbiota dysbiosis. Using the safe Lactobacillus casei as the chassis, we have integrated a multifunctional genetic circuit. First, by introducing the accA and OLE1 genes, the engineered bacterium can synthesize and release oleic acid—beneficial for gut barrier repair—under the specific regulation of the bile salt-responsive promoter P16090. Simultaneously, the bacterium expresses the antimicrobial peptide defensin DEFB4A to precisely suppress opportunistic pathogens. To ensure biosafety, we designed a bile salt-responsive Hok/Sok toxin-antitoxin "kill switch" system, controlled by the same P16090 promoter. This mechanism ensures that the engineered bacterium only colonizes the gut; any leakage into the external environment triggers its automatic clearance. Together, this living therapeutic platform is equipped with functions for barrier repair, pathogen suppression, and self-regulation, setting a new standard for targeted, safe, and intelligent interventions.https://static.igem.org/peertube/streaming-playlists/hls/d8209da0-e565-4a26-8069-f4e8fa7f2364/af811fd8-77d4-42ed-8094-2058da427856-master.m3u8https://video.igem.org/videos/embed/sFVy78SaQeitpzSwq6BkN51620092025-11-06T18:44:24.775ZYES2025 Judging SessionsNOhttps://video.igem.org/w/j2gvmFvH4HaPGx1nhZhpU4https://video.igem.org/lazy-static/thumbnails/adf11580-9771-4a44-bc82-6c619e764a6e.jpgNUS-Singapore: Judging SessionWith limited land and resources, Singapore heavily relies on imported food for daily sustenance and disruptions to food production and transport could quickly compromise our food availability. We need a resilient food source that can be produced locally at high quantities and affordable prices. We hope to leverage the power of microbes, to design a new sustainable form of food to solve this. Inspired by the kombucha craze, we identified its cellulose pellicle, known as SCOBY, a Symbiotic Culture Of Bacteria and Yeast, as our nutritious canvas. Using synthetic biology, we want to transform SCOBY into JustBITE, a resilient food source with customizable taste and texture. Our project takes this radical step of reimagining microbes, not as hidden ingredients in fermentation but a revolutionary food source, that could redefine how Singapore, and the world eats. Envisioning a future where every household can safely create JustBITE with our simple machine. https://static.igem.org/peertube/streaming-playlists/hls/91f1cbaf-e904-43c0-a011-1e7e749e2557/7af3a112-3e0d-4222-ac91-72c3bd394fd7-master.m3u8https://video.igem.org/videos/embed/j2gvmFvH4HaPGx1nhZhpU417730122025-11-06T18:44:28.852ZYES2025 Judging SessionsNOhttps://video.igem.org/w/t2R72oABz3Qun4u7Svv2RWhttps://video.igem.org/lazy-static/thumbnails/df3a6c61-538b-45a4-b8d1-78a8bcb33ba9.jpgHUST-China: Judging SessionSquoilene tackles waste oil (WO) pollution and the high cost of squalene production by integrating experimental work, model and hardware into a cohesive synthetic biology project, engineering Yarrowia lipolytica into an efficient cellular refinery.Through human practice and interdisciplinary communication, we refined design and promoted implementation. We established TriScale, a hierarchical in silico pipeline integrating signal peptide–linker–based peroxisomal targeting design, rational tHMGR enzyme engineering, and system-level growth modeling for predictive and knowledge-guided prototyping. Building on this framework, we developed a compartmentalized metabolism strategy, relocating the entire MVA pathway into peroxisomes to enhance flux and isolate toxic intermediates. To bridge lab design with application, we created the low-cost, automated Integrated Fermentation & Processing System (iFPS), streamlining production from inoculation to crude lysate collection. Our integrated approach demonstrates a sustainable, economically viable route to convert pollutants into valuable cosmetic ingredients，while contributing innovations in culture analysis and fermentation processing.https://static.igem.org/peertube/streaming-playlists/hls/dae8bfb9-2fc8-4a1d-909d-1d6375b4e38c/d0e446eb-34bc-4fee-acc6-00242e49950d-master.m3u8https://video.igem.org/videos/embed/t2R72oABz3Qun4u7Svv2RW1574062025-11-06T18:44:39.298ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8g6qq3oW2ZXaGQFDB3Xpuyhttps://video.igem.org/lazy-static/thumbnails/a7d9fa87-9759-4d6b-8f11-0b307953f30e.jpgBIT-China: Judging SessionThe expression of style and personality through fashion colors is often shadowed by the heavy discharge of wastewater and the reliance on toxic fixatives. Our FABRIC project, however, utilizes synthetic biology to envision a cleaner, greener future. We engineered yeast strains to synthesize primary bio-dyes and developed a protein mordant that binds these dyes tightly to the fabric, effectively replacing chemical fixatives. Finally, the yeast's light-inducible system work in concert with our custom-developed hardware to empower users in realizing their ultimate fashion vision, establishing a truly sustainable dyeing solution.https://static.igem.org/peertube/streaming-playlists/hls/3acb77cb-1868-459e-b2ce-ce7456c66f0c/9fd2d272-8895-4772-8549-0f48dd4befce-master.m3u8https://video.igem.org/videos/embed/8g6qq3oW2ZXaGQFDB3Xpuy17240102025-11-06T18:44:47.394ZYES2025 Judging SessionsNOhttps://video.igem.org/w/hqYCAxjVUL5Z5hKk1itduehttps://video.igem.org/lazy-static/thumbnails/4f8c9ac1-10ff-4bc4-8ea7-6e3a6bbc4086.jpgSR-Shenzhen: Judging SessionCurrent production methods face challenges such as high costs, harsh reaction conditions, complex processes, and environmental burdens. Using synthetic biology, we redesigned E. coli by introducing the genes NiaP, nadV, PnuC, and BaPRS, enabling efficient NMN production. Considering gender differences: for men, we engineered E. coli to produce GLP-1, which is combined with NMN to make capsules; for women, we engineered E. coli to produce glutathione, developed into oral solutions and antioxidant facial masks. Through this diversified design, our solution makes it easier for people to achieve healthier and more vibrant lives.https://static.igem.org/peertube/streaming-playlists/hls/850ef817-696e-4b43-8b77-dee09c509a9d/dc24c48c-a1eb-4555-942d-0171b0963fcc-master.m3u8https://video.igem.org/videos/embed/hqYCAxjVUL5Z5hKk1itdue1590042025-11-06T18:44:54.099ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pE4ExyvHQqC3Z39Vwax8g5https://video.igem.org/lazy-static/thumbnails/2974429a-055e-419a-bbe4-ed7521dede3c.jpgNPU-CHINA: Judging SessionPro-Xylane is highly valued in cosmetic and dermocosmetic applications owing to its notable biological activities, including anti-inflammatory and anti-aging effects. Conventional production, however, relies on environmentally unfriendly chemical synthesis or limited natural extraction with low yield and high cost. To address these challenges, we developed a biosynthetic system in engineered Komagataella pastoris. By co-expressing high-performance xylanase and Pro-Xylane synthase, our chassis enables direct, value-added conversion of xylan into Pro-Xylane. The system features a smart xylose-inducible module that dynamically regulates a modular enzymatic cascade through tailored metabolic pathways. Integrating synthetic genetic circuits with native pentose metabolism and applying modular control strategies, we established an efficient, sustainable, and tunable production system. This approach highlights the power of synthetic biology–driven cell machines for high-value biotransformations and provides a proof-of-concept platform for the programmable biosynthesis of Pro-Xylane.https://static.igem.org/peertube/streaming-playlists/hls/bf92b5f7-1734-4155-8ddf-77ba7d05dbce/7fd80d0e-a7e2-4b96-b538-a3305b607a48-master.m3u8https://video.igem.org/videos/embed/pE4ExyvHQqC3Z39Vwax8g51171012025-11-06T18:44:55.865ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6cPJb8Zzn5YLi4LshEkJAPhttps://video.igem.org/lazy-static/thumbnails/da8a4b67-8690-4800-ab66-be6f0731185f.jpgHKSSC: Judging SessionAtopic Dermatitis (eczema) stems largely from filaggrin (FLG) mutations, causing skin barrier failure. Current treatments only manage inflammation. We propose synthesizing artificial FLG to directly repair the barrier, delivered via jojoba oil for optimal topical application. This targets the condition's root cause, the skin barrier dysfunction.https://static.igem.org/peertube/streaming-playlists/hls/2a2449a4-e1b6-4237-8d2a-e887290808a3/b77666d6-469b-4cad-8acc-384ae04c0525-master.m3u8https://video.igem.org/videos/embed/6cPJb8Zzn5YLi4LshEkJAP1563052025-11-06T18:44:57.316ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oFHAM5qyHZfunmgUKYtZPxhttps://video.igem.org/lazy-static/thumbnails/bdce4d43-a100-4a84-af1d-fac9502cd43c.jpgSJTU-BioX-Shanghai: Judging SessionAs the incidence of atopic dermatitis is increasing, the poor therapeutic experience of patients relying on long-term steroid use and immunosuppressants requires a breakthrough. Current treatments face a high recurrence rate. We stand to develop a more favorable treatment experience. Relevant studies have shown that the microbiome plays a critical role in the pathogenesis of atopic dermatitis, particularly the presence of Staphylococcus aureus and its inflammatory effects. Based on this, we designed a therapeutic system using engineered Staphylococcus epidermidis. We genetically modified Staphylococcus epidermidis to sense the AIP-C secreted by S. aureus and activate two downstream therapeutic pathways. The first pathway produces an nanobody that targets and neutralizes the inflammatory cytokine, while the second secretes AIP-C to suppress the virulence of S. aureus. Together, our system offers a safe and long-lasting therapeutic strategy, representing a paradigm shift in atopic dermatitis management - moving from symptom suppression to microbiome-mediated disease prevention.https://static.igem.org/peertube/streaming-playlists/hls/b7b4b1b8-47d7-4076-af3d-50b6625cdfe1/a5f1a1d2-0cb7-456d-be64-2756be6eba28-master.m3u8https://video.igem.org/videos/embed/oFHAM5qyHZfunmgUKYtZPx1581052025-11-06T18:45:15.951ZYES2025 Judging SessionsNOhttps://video.igem.org/w/wDozgGjeCYQe3M4hrYzcGrhttps://video.igem.org/lazy-static/thumbnails/bc1db749-858b-416d-a514-a82f70c2d426.jpgNTHU-Taiwan: Judging SessionProtein engineering underpins modern biotechnology, yet turning designed sequences into robustly functional biomolecules remains inefficient because datasets are small, screening is costly, and sequence–function mappings are uncertain. While the development of large protein models such as Alphafold has advanced structure prediction, consistent performance across diverse conditions is still difficult to achieve. We built a data-free active-learning generative protein-language model framework, Seed & Seek, cooperating with biological directed-evolution (using a coarse-to-fine tuning strategy), spanning both in vitro ePCR mutations and in vivo EcoRep systems. Using the SpyTag/SpyCatcher pair as a testbed, we targeted improved association rates and iteratively validated candidates with split-luciferase assays. By uniting computation with biological selection, our framework accelerates discovery of adaptable, high-performing protein variants.https://static.igem.org/peertube/streaming-playlists/hls/f82a973d-a0f4-4fe1-b51d-f7b69a5da97d/0eb0f211-2ff5-45ac-bd3d-1a31b5db984b-master.m3u8https://video.igem.org/videos/embed/wDozgGjeCYQe3M4hrYzcGr1509012025-11-06T18:45:24.125ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1yA6q997V9w7VKX9yzvRKBhttps://video.igem.org/lazy-static/thumbnails/7d224e36-badb-47b6-953d-4e0ec681a232.jpgNENU-China: Judging SessionLactose intolerance, a prevalent global condition, causes symptoms like diarrhea and abdominal pain due to lactase deficiency in the gut. Current dietary management lacks long-term efficacy and impacts life quality. We propose a sustainable synthetic biology-based therapy using engineered Bifidobacterium. This strain is modified with a optimized bgaB lactase and LacY lactose transporter for efficient lactose metabolism. It also incorporates a genetic circuit with a deoxycholic acid-inducible MucBP adhesion protein and an AI-2/CcdB-mediated population control system. This design enables stable colonization at an appropriate density, ensuring continuous lactose breakdown for long-term management of lactose intolerance.https://static.igem.org/peertube/streaming-playlists/hls/048ccfba-1fd8-4a8a-822e-a96e4ddaafdd/2eb0c5ae-1ab9-4860-b8d1-a1f8c198ba83-master.m3u8https://video.igem.org/videos/embed/1yA6q997V9w7VKX9yzvRKB14000132025-11-06T18:45:44.839ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fFfcinCoH6853Q6CRdsmHYhttps://video.igem.org/lazy-static/thumbnails/74a49ccc-bda1-441f-9902-2cd318e6ce6d.jpgSHSD: Judging SessionGlobal warming is becoming an increasingly serious problem, primarily due to the massive emission of greenhouse gases, especially carbon dioxide, resulting from human activities. Microalgae, as photosynthetic aquatic organisms, hold significant potential for carbon dioxide fixation. However, the rising prevalence of high temperatures associated with global warming poses a serious threat to the survival of many plants and crops, including microalgae. To address this challenge, we are overexpressing the endogenous gene CPN60C in Chlamydomonas reinhardtii. CPN60C is a mitochondrial galactose-binding protein that enables Chlamydomonas reinhardtii to survive and maintain photosynthesis under heat stress. In this project, we transformed Chlamydomonas reinhardtii with the plasmids containing CPN60C, generating transgenic strains that overexpress the gene. This enhanced their ability to withstand high temperatures and photosynthesize efficiently. Our long-term goal is to develop heat-tolerant algae capable of surviving elevated temperatures and fixing carbon dioxide efficiently, thereby providing a practical approach to mitigating global warming.https://static.igem.org/peertube/streaming-playlists/hls/76dab236-1cd2-4483-afe1-5d35a9bcca42/9d8d609b-d973-4f73-b77b-6f8691045a54-master.m3u8https://video.igem.org/videos/embed/fFfcinCoH6853Q6CRdsmHY1554002025-11-06T18:46:23.543ZYES2025 Judging SessionsNOhttps://video.igem.org/w/xzpjAkHyPJHZe3SR2XsE4vhttps://video.igem.org/lazy-static/thumbnails/143770eb-bd13-471b-9b63-38e72c88eab1.jpgInstitut-Le-Rosey-CH: Judging SessionThe project aims to develop a low-cost, rapid, and user-friendly diagnostic kit for detecting EGFR mutations in circulating tumor DNA (ctDNA), which are associated with non-small cell lung cancer (NSCLC). The system integrates Recombinase Polymerase Amplification (RPA) with CRISPR-Cas9 amplicon cleavage and a Lateral Flow Assay (LFA) readout, enabling a one-pot, isothermal assay that delivers a visual result without specialized equipment. This approach aims to make early molecular screening for NSCLC accessible, especially in resource-limited regions.https://static.igem.org/peertube/streaming-playlists/hls/ffb536f4-ae18-4154-8c9c-d8e51bb13f83/50ecedc3-6756-45e3-8e45-893fc2d79c24-master.m3u8https://video.igem.org/videos/embed/xzpjAkHyPJHZe3SR2XsE4v1531012025-11-06T18:46:26.248ZYES2025 Judging SessionsNOhttps://video.igem.org/w/hbHviDu9t6d1fkvFTfN3HKhttps://video.igem.org/lazy-static/thumbnails/fd3ea0a5-5c6d-434c-b5e0-9d3da8e55203.jpgZEOLYM: Judging SessionCerviX Spy is an innovative point-of-care testing (POCT) platform integrating CRISPR-Cas13a technology and microfluidics for early cervical cancer screening. Targeting the host-derived biomarker miR-155 - a key oncogenic miRNA upregulated in precancerous lesions—the system employs a modular toehold switch probe that undergoes conformational change upon target binding, activating a T7 promoter to transcribe sgRNA. This triggers Cas13a-mediated cis-cleavage of target RNA and collateral trans-cleavage of fluorescent reporters, enabling pM-level detection under isothermal conditions (37 ℃). Validated via rigorous DBTL (Design-Build-Test-Learn) cycles, the biosensor achieves single-base specificity and pM sensitivity, overcoming limitations of traditional HPV-DNA assays (e.g., inability to distinguish transient vs. oncogenic infections). Encapsulated in the user-friendly "CerviSure Scanner" - a 3D-printed, disposable microfluidic device - the system supports decentralized, non-invasive screening with rapid results (<60 min). This platform promises to reduce healthcare disparities by enabling accessible, high-accuracy screening in low-resource settings, advancing global cervical cancer elimination efforts.https://static.igem.org/peertube/streaming-playlists/hls/83113c1a-4c22-47e2-b5f0-abc701820fed/d5ea6cf6-d08c-4199-b01c-424c22c2e992-master.m3u8https://video.igem.org/videos/embed/hbHviDu9t6d1fkvFTfN3HK1418002025-11-06T18:46:33.091ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oA5Txa6TFYu95wndMvEs7dhttps://video.igem.org/lazy-static/thumbnails/b77eb572-fb3b-4575-a877-13b313b7984f.jpgMITWPU-BHARAT: Judging SessionThe global opioid epidemic kills 600+ people daily—over 500,000 American lives lost since 1999. In India, 2.3+ million people suffer from opioid addiction, with Punjab and Haryana experiencing alarming proliferation. This $500+ billion global economic disaster demands immediate action, yet current detection methods fail when seconds matter most. Existing diagnostics are too slow, expensive, and complex for real-time emergency response, addiction treatment, and law enforcement—creating a critical gap between urgent need and available solutions. Opio-Rx revolutionizes opioid detection with the world's first rapid, point-of-care platform detecting multiple synthetic opioids—fentanyl, oxycodone, methadone, tramadol, and codeine—from saliva in under 5 minutes. Our breakthrough combines computationally designed aptamers with FRET-based biosensing and AI-powered mobile integration, delivering laboratory-grade accuracy anywhere, anytime. This commercial solution healthcare workers, first responders, and treatment providers need. Opio-Rx saves lives by enabling instant, life-or-death decisions preventing overdoses, transforming addiction recovery. Molecular diagnostics starts here.https://static.igem.org/peertube/streaming-playlists/hls/b6eb59f4-a84a-4566-af64-fac00f09ae70/40d104cf-ceae-4e00-8f15-805736d0d7c7-master.m3u8https://video.igem.org/videos/embed/oA5Txa6TFYu95wndMvEs7d1292052025-11-06T18:46:39.146ZYES2025 Judging SessionsNOhttps://video.igem.org/w/2ZnVAg1LEX9jy5fzjTXULzhttps://video.igem.org/lazy-static/thumbnails/258f873c-fa58-4ae8-a254-4336e2a4e170.jpgNNU-CHINA: Judging SessionBirth defects represent a significant challenge in the field of global public health. Among the contributing factors, folic acid deficiency is one of the primary preventable causes. These defects not only endanger individual health but also impose a heavy burden on healthcare systems and society. Methylenetetrahydrofolate reductase (MTHFR) is a critical enzyme in the folic acid metabolic pathway. Mutations in the MTHFR gene can impair folic acid metabolism, increasing the risk of adverse pregnancy outcomes such as miscarriage and fetal malformations. As a result, MTHFR testing has become an essential component of prenatal screening. This project is dedicated to developing faster, more cost-effective, and convenient diagnostic methods for folic acid testing and formulating personalized intervention plans for different populations. Through in-depth research on folic acid metabolism and related genes, we aim to reduce the incidence of birth defects associated with folic acid deficiency and safeguard maternal and child health.https://static.igem.org/peertube/streaming-playlists/hls/101c0b70-3531-4c6f-bcbd-6b87743fb0b1/0bd43b3b-fb31-4862-9f3e-ec69df24265b-master.m3u8https://video.igem.org/videos/embed/2ZnVAg1LEX9jy5fzjTXULz1613032025-11-06T18:46:40.520ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fSznfzEXAco1uMdNZeCsJNhttps://video.igem.org/lazy-static/thumbnails/49dae179-ecb0-40fc-9d8a-87c60e889211.jpgPatras: Judging SessionSepsis is a life-threatening condition caused by the body’s extreme response to infection. Each year, it affects 49 million people worldwide and causes 11 million deaths, but early diagnosis greatly improves survival. Aechmi emphasizes patient autonomy, equitable access, and well-being. Its design was shaped through engagement with survivors, clinicians, bioethicists, and marginalized communities. Aechmi integrates a CRISPR/Cas13a-based microRNA detection mechanism with a Catalytic Hairpin Assembly (CHA) amplification circuit. In the presence of bacterial sepsis-associated microRNA biomarkers, selected through machine learning-based data analysis, Cas13a triggers CHA. This produces an electrochemical signal, making our system suitable for future integration into an electrochemical biosensor for real-time monitoring of the biomarkers. The proper functioning of the biological mechanism is verified through modeling based on thermodynamic and kinetic analyses of all the reactions involved.https://static.igem.org/peertube/streaming-playlists/hls/786fb148-c222-42bf-bd36-2fa42f60e9ea/d30a3cd0-fe02-4916-a9cf-0e42d4128390-master.m3u8https://video.igem.org/videos/embed/fSznfzEXAco1uMdNZeCsJN15760112025-11-06T18:46:41.893ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rDSHScCHwjh8hceCuYYUX9https://video.igem.org/lazy-static/thumbnails/99583852-5f14-40e4-8c52-d73cbca7af98.jpgOhio State: Judging SessionEarly disease detection improves outcomes and reduces costs, yet current biomarker monitoring requires periodic blood draws, limiting continuous assessment. This proposal aims to develop a wearable, aptamer-based biosensor for critical care diseases like sepsis and kidney failure. A microfluidic device connected to a venous port would continuously monitor biomarkers such as procalcitonin (PCT) and creatinine, providing real-time data to guide treatment. SA 1: Using mutagenic SELEX, we will evolve aptamers with reversible binding under physiological conditions. Aptamers will be immobilized on microfluidic channels with gold electrodes; biomarker binding triggers conformational changes detected electrically and transmitted via Bluetooth. SA 2: A biocompatible port with a semipermeable membrane will exclude blood cells while allowing biomarker flow. Sterility will be maintained using antibiotic-eluting materials, minimizing infection risk during periodic microfluidic replacement. Impact: This platform enables continuous, modular biomarker monitoring, improving patient care, accelerating interventions, and advancing wearable diagnostics in critical care.https://static.igem.org/peertube/streaming-playlists/hls/cfbe3e92-69aa-48df-84d0-fb9a392cda0e/09ac8851-536f-4607-b58d-b830a3791604-master.m3u8https://video.igem.org/videos/embed/rDSHScCHwjh8hceCuYYUX91623002025-11-06T18:46:43.962ZYES2025 Judging SessionsNOhttps://video.igem.org/w/djRVH9FuYDeNcoA2c2MxJxhttps://video.igem.org/lazy-static/thumbnails/9a41ffa8-eecf-4c86-8fb8-e18fd2352f74.jpgHAOLVE-Nanjing: Judging SessionRare earth elements (REEs), often referred to as “industrial vitamins”, possess unique physicochemical properties that make them vital components in high-tech industries including optics, electronics, and magnetism. However, conventional extraction and separation techniques—such as sulfate roasting, alkali leaching, and ammonium salt leaching—are associated with severe environmental pollution and ecological damage. In response, microbial bioleaching and biosorption using bacteria represent a promising green alternative, offering an eco-friendly, cost-effective, and sustainable strategy for REE recovery. In this project, we first validated the REEs adsorption capacity of Pseudomonas kunmingensis (P. kunmingensis) HL22-2T, and subsequently engineered the strain with key genes involved in polyphosphate metabolism. By reprogramming its phosphate regulatory network, we aim to enhance the strain’s ability to adsorb REEs, aligning with the principles of sustainable biotechnology. https://static.igem.org/peertube/streaming-playlists/hls/63cfd1dd-8350-42d7-8b59-c6882e5ac437/ba6b725f-619c-448e-af60-0b44ce00923a-master.m3u8https://video.igem.org/videos/embed/djRVH9FuYDeNcoA2c2MxJx1412012025-11-06T18:46:46.115ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5uXGmxdCGyLnyqi44k5WiChttps://video.igem.org/lazy-static/thumbnails/3753c7f2-5a8e-44ba-b6c8-360d0fb047aa.jpgECUST-China: Judging SessionChina's classical novel “Journey to the West”, the project transforms his "72 transformations" of adaptability and breakthrough spirit into technical design concepts, demonstrating the deep integration of traditional wisdom and modern technology. Technically, our team successfully developed a novel vaccine delivery system responsive to specific light signals using gene editing technology. This system utilizes a biomimetic vaccine robot to achieve targeted penetration of fish immune barriers and precise activation of immune responses, thereby significantly enhancing disease resistance in fish. Meanwhile, the automated immersion inoculation equipment adopts high-efficiency, non-destructive designs to ensure high precision and scalability during inoculation, making it suitable for large-scale farming scenarios. Practice has shown that this technological system effectively reduces antibiotic usage and decreases disease outbreak frequency. The project's achievements provide innovative solutions for marine ecological protection and global food security, showcasing the potential of interdisciplinary collaboration in addressing agricultural challenges.https://static.igem.org/peertube/streaming-playlists/hls/246fb434-e15b-43c5-aa94-4f35aff99c86/9ce9b5ce-4c37-481c-b428-9fb25fbfe8b9-master.m3u8https://video.igem.org/videos/embed/5uXGmxdCGyLnyqi44k5WiC1524002025-11-06T18:46:55.350ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pz2qeNCEhLK5y2ymej1f7Uhttps://video.igem.org/lazy-static/thumbnails/22c5d3fe-a743-46fe-b593-5e364f8c22e4.jpgTU-Eindhoven: Judging SessionChronic diarrhea affects millions worldwide, yet its underlying causes often remain undiagnosed due to the lack of accessible diagnostic tools. One of the most overlooked conditions is Bile Acid Malabsorption (BAM), a disorder in which excess bile acids reach the colon, leading to persistent diarrhea, abdominal pain, and impaired quality of life. Current diagnostic methods for BAM are either too invasive, expensive, or impractical for routine clinical use, resulting in long diagnostic delays and misclassification as irritable bowel syndrome. To address this gap, we developed BRIGHT, a novel bioluminescent biosensor that detects bile acids in stool samples. BRIGHT provides a simple, fast, and affordable readout that can be quantified with a smartphone camera, opening the door to a home based point-of-care test. By lowering barriers for both patients and clinicians, BRIGHT aims to empower individuals, accelerate diagnosis, and pave the way toward improved treatment outcomes.https://static.igem.org/peertube/streaming-playlists/hls/bede9b7e-8955-472e-8bee-cd51793f53c8/66eb0536-bd0a-44ce-a367-8f9684d4bef2-master.m3u8https://video.igem.org/videos/embed/pz2qeNCEhLK5y2ymej1f7U1541052025-11-06T18:47:00.209ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nm5GZiu6c9YMXJ9bFAaq4ohttps://video.igem.org/lazy-static/thumbnails/15750b0c-d39d-46fb-be73-8c4a37319f4e.jpgUSTC: Judging SessionBotulinum toxin type A (BoNT/A), needing high-demand detection in medical aesthetics and food safety, prompts us to develop a simplified, accurate, fast, low-cost detection method to replace the traditional mouse bioassay. We use Saccharomyces cerevisiae to build a dual-yeast system: one acts as substrate to sense BoNT activity and release ligands, the other receives signals to express pigments for visualizing BoNT concentration, with coupled GPCR pathway and GAL system for signal amplification. It applies to quality inspection of medical aesthetic products and food safety, boosting efficiency and offering public accessible safety verification. This project can be applied in the quality inspection of medical aesthetic products and food safety testing. It not only improves the quality inspection efficiency of relevant institutions but also provides the general public with an accessible means to verify the safety of daily food products. https://static.igem.org/peertube/streaming-playlists/hls/acddb017-9582-4b20-a8a9-e6e3837ed58c/5bebd6f2-3963-416d-a8ef-3c4e4698352d-master.m3u8https://video.igem.org/videos/embed/nm5GZiu6c9YMXJ9bFAaq4o1670032025-11-06T18:47:01.387ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7mQmZF43ke4mkuRQuCRSdZhttps://video.igem.org/lazy-static/thumbnails/76f3aa4d-279b-4f74-8947-805bb960a018.jpgBioplus-Shanghai: Judging SessionThis study innovatively developed a novel genetically encoded NO fluorescent probe based on synthetic biology. The probe utilizes genetically engineered E. coli as a biological vector, coupling a precisely designed NO-sensing protein module with a fluorescent reporting system to achieve highly sensitive and specific real-time monitoring of nitric oxide (NO). As a crucial signaling molecule in cardiovascular diseases, this technology provides a groundbreaking dynamic monitoring approach for early diagnosis of conditions such as atherosclerosis and hypertension.Compared with traditional detection methods, this probe demonstrates significant advantages including simple operation, low cost, and capability for long-term continuous monitoring.https://static.igem.org/peertube/streaming-playlists/hls/337f82f0-9e56-46e6-8cc9-4e4f6b8f19e1/0b541661-9d77-4146-aa53-5b69f4aa30d9-master.m3u8https://video.igem.org/videos/embed/7mQmZF43ke4mkuRQuCRSdZ1584002025-11-06T18:47:05.486ZYES2025 Judging SessionsNOhttps://video.igem.org/w/jEYm2Lc3juxtnibAMRDyudhttps://video.igem.org/lazy-static/thumbnails/9fb4f0f7-864c-40e7-93b8-556ba798d2a4.jpgYAU-China: Judging SessionEscherichia coli was genetically engineered to construct a dual-modal biosensor responsive to quorum sensing signaling molecules. The engineered bacteria carry a Pseudomonas aeruginosa-specific promoter that drives the expression of β-galactosidase and β-glucuronidase, which hydrolyze the substrates ONPG (o-nitrophenyl-β-D-galactopyranoside) to produce a yellow color and MUG (4-methylumbelliferyl-β-D-glucuronide) to emit fluorescence, respectively. This enables the qualitative and quantitative detection of Pseudomonas aeruginosa.https://static.igem.org/peertube/streaming-playlists/hls/97357bb2-c132-4f14-b376-679b6098f45c/070ab85e-a403-4c7e-b96f-40f1da5b9213-master.m3u8https://video.igem.org/videos/embed/jEYm2Lc3juxtnibAMRDyud1527052025-11-06T18:47:06.351ZYES2025 Judging SessionsNOhttps://video.igem.org/w/aJyQnH8R5WN23WwDENT47Bhttps://video.igem.org/lazy-static/thumbnails/b2a78ff2-8b7a-4d29-b2f4-2cc9484201c0.jpgNTU-Singapore: Judging SessionCASPER aims to build a standardized backbone for Cas13-based RNA knockdown, enabling fair comparisons across Cas13 variants. For knockdown, we cloned several Cas13b (bt1, bt3, pgu, Ran) and Cas13d (djCas13d) constructs into the xPERT backbone to test RNA cleavage efficiency using ANXA4 and BGALNT1 as the target. Guide RNAs were designed, cloned, and verified through restriction digestion, ligation, transformation, and sequencing. Confirmed plasmids will be transfected for RT-qPCR and editing assays to evaluate both knockdown and editing performance within a unified framework. On the computing side, we built a motif-guided protein generation model showing that conserved motifs reliably mark Cas13 subtypes. The first version (v1) used ESM-2 to generate realistic Cas13d variants that passed structural checks. A second version (v2) incorporated reinforcement learning for subtype precision but produced less natural sequences. v1 offers a practical baseline, while v2 points toward more controlled protein design.https://static.igem.org/peertube/streaming-playlists/hls/4ed3b891-ddf2-4a92-a5fc-17ab51e2edc3/90edc03f-1c48-4a04-9046-a3855651036b-master.m3u8https://video.igem.org/videos/embed/aJyQnH8R5WN23WwDENT47B1477092025-11-06T18:47:08.156ZYES2025 Judging SessionsNOhttps://video.igem.org/w/o5YMbPMnT8QPfY989Ue7dhhttps://video.igem.org/lazy-static/thumbnails/50b42807-410d-4514-90db-7eecb9826887.jpgKeystone: Judging SessionAlzheimer's Disease (AD) poses a global challenge with over 56 million affected, yet early detection remains limited by invasive or costly methods. Our project combines synthetic biology and CRISPR-Cas12a technology: using SELEX to screen DNA aptamers specifically targeting BD-Tau, a key AD biomarker, and coupling this with CRISPR's trans-cleavage activity for sensitive, low-cost detection. This approach enables non-invasive, precise early AD screening, aiming to improve diagnostic accessibility and patient outcomes.https://static.igem.org/peertube/streaming-playlists/hls/b2db0456-e3f1-4b9b-a1f1-67480033c9a8/334bcc07-5205-4e02-9380-d98274dcaa7b-master.m3u8https://video.igem.org/videos/embed/o5YMbPMnT8QPfY989Ue7dh15230102025-11-06T18:47:09.712ZYES2025 Judging SessionsNOhttps://video.igem.org/w/jbzQWG6XcVUmwnU9Reci2Jhttps://video.igem.org/lazy-static/thumbnails/bf44a060-7f27-48d1-b177-13fb2bf43909.jpgMunich: Judging SessionTattoos have long served as markers of identity and belonging. InkSight repurposes this historical medium for modern medicine as a platform comprising engineered mammalian cells encapsulated in a hydrogel matrix for intradermal delivery as a tattoo. This system enables the real-time, equipment-free detection of circulating biomarkers through direct interrogation of the interstitial fluid. The engineered cells express a Modular Extracellular Sensor Architecture (MESA) for target recognition, which triggers one of three engineered contrast-change mechanisms: expression, assembly, or agglomeration. This response is driven by synthetic melanin-producing compartments, specifically encapsulin nanocages that house tyrosinase to enable localized and safe melanin production, resulting in a visible shift in tattoo contrast. InkSight constitutes, to our knowledge, the first paradigm for a continuous, cell-based tattoo biosensor with a visible output, establishing a foundational platform for decentralized diagnostics and personalized medicine.https://static.igem.org/peertube/streaming-playlists/hls/933eca64-1759-44ca-9e1d-51bb77a261f0/f9b04b70-8bcd-4cbb-b7f8-e3810839b8c3-master.m3u8https://video.igem.org/videos/embed/jbzQWG6XcVUmwnU9Reci2J1494092025-11-06T18:47:11.828ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8w9Pqvr4tQBYRMrTnfApcjhttps://video.igem.org/lazy-static/thumbnails/23b16959-2495-406b-a930-46e8e2e5d7f0.jpgHK-Joint-School: Judging SessionPestiGuard is an innovative biosensor that puts food safety directly into the hands of consumers. To address the global health risks from pesticide residues, we have developed a simple, on-site detection system. At its heart are engineered bacteria containing a specialized RNA aptamer. When a specific pesticide is present, it binds to the aptamer, suppressing a fluorescent reporter gene and resulting in a dimmer glow. This provides an intuitive visual signal: brighter means safer, dimmer means contaminated. For precise results, we created companion software and hardware. A photo of the test sample is instantly analyzed, comparing the color intensity to a safety reference to display clear contamination levels. By integrating synthetic biology with smart technology, PestiGuard transforms complex lab testing into an accessible, user-friendly process, empowering everyone to make informed decisions about their food.https://static.igem.org/peertube/streaming-playlists/hls/3ce5b7c0-4441-4c39-9fe9-264a0ac6ab5c/ccc80048-50bc-4a2f-b820-b0d2040e3e2c-master.m3u8https://video.igem.org/videos/embed/8w9Pqvr4tQBYRMrTnfApcj9700122025-11-06T18:47:18.006ZYES2025 Judging SessionsNOhttps://video.igem.org/w/hK67WbSzk7SeFBTkZvmcLhhttps://video.igem.org/lazy-static/thumbnails/1d4640a4-fa4e-4267-a8f7-d4af01c8ffc7.jpgQYZX-China: Judging SessionAccording to the International Diabetes Federation, approximately 589 million adults worldwide have diabetes, with Type 2 diabetes comprising over 90% of cases. Persistent hyperglycemia can lead to serious multi-organ complications. Current treatments require frequent administration, creating practical burdens and reducing quality of life. Our project, VitaPop Jelly, addresses this through an innovative solution: using engineered E. coli Nissle 1917 to enable continuous intestinal secretion of GLP-1 for sustained glycemic control. We optimized the GLP-1 codon usage to enhance expression and implemented a dual biocontainment system using cysteine auxotrophy and a temperature-sensitive promoter to prevent transgenic leakage. We aim to provide people with diabetes with a safer, more convenient biologic treatment option that improves both health outcomes and daily life.https://static.igem.org/peertube/streaming-playlists/hls/87965b0f-b656-4d59-bd1d-5626c68fbc64/120f8566-5d3c-4342-9ce5-73293e880de0-master.m3u8https://video.igem.org/videos/embed/hK67WbSzk7SeFBTkZvmcLh1382072025-11-06T18:47:36.539ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3xMBKxYLgUcgbnvPQrrRk5https://video.igem.org/lazy-static/thumbnails/48cf5bb8-95c9-4599-b0b4-d88e0d49292b.jpgThessaloniki: Judging SessionsiREN is a novel RNAi therapeutic approach for the treatment and management of Chronic Lymphocytic Leukemia (CLL). By targeting overexpressed proteins (ΒCL2 and BTK) through siRNA-mediated gene silencing, we aim to inhibit the uncontrolled proliferation of leukemic cells and induce apoptosis. Our goal is to suppress the survival pathways driving disease progression, thereby restoring normal cell death mechanisms. This gene silencing will be achieved by delivering siRNAs into cancerous cells via lipid nanoparticles, engineered with antibodies specifically targeting CLL cells. These modified nanocarriers are designed to target ROR1, a protein highly expressed on the surface of target cells, and to release the siRNAs inside them, effectively silencing the genes responsible for CLL pathogenesis, while minimizing interaction with healthy cells.https://static.igem.org/peertube/streaming-playlists/hls/14a27240-30d1-48bc-b3ce-2704c7912dee/847b628f-be7d-421e-802c-2d7838c4c3ee-master.m3u8https://video.igem.org/videos/embed/3xMBKxYLgUcgbnvPQrrRk515350222025-11-06T18:47:44.674ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tze8nDWRu4TNSyav5MEE5Jhttps://video.igem.org/lazy-static/thumbnails/523110e8-e2fd-42d3-9b6a-b5ef24f2203f.jpgThessaly: Judging SessionPancreatic Ductal Adenocarcinoma (PDAC) causes nearly half a million deaths worldwide each year, with incidence and mortality rates almost identical, reflecting the lack of effective treatments. To address this, we developed Clotho, a modular gene therapy designed to cure PDAC. Using an adeno-associated virus, we deliver a therapeutic transgene that activates exclusively in cancer cells. Once inside, it produces circular RNAs and the enzyme Cytosine Deaminase. The circular RNAs act as sponges for tumor-promoting miRNAs, enhancing cancer cell sensitivity to treatment. Meanwhile, the enzyme converts the harmless prodrug 5-fluorocytosine into the toxic compound 5-fluorouracil, selectively killing malignant cells. Complementing this, our software platform Kathesis generates patient-specific circular RNA sequences based on individual genetic profiles. This dual approach enables precise, personalized, and targeted therapy, reducing off-target effects and introducing a novel strategy to overcome drug resistance in PDAC and potentially other diseases.https://static.igem.org/peertube/streaming-playlists/hls/df4a60cb-bfec-4b6d-9434-1779f81e006a/e93baeef-b8a8-43f8-b02d-c032437a89a4-master.m3u8https://video.igem.org/videos/embed/tze8nDWRu4TNSyav5MEE5J15850102025-11-06T18:47:48.715ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pwzUGocZNRSM8acvM2rzRnhttps://video.igem.org/lazy-static/thumbnails/171ec487-c545-4e7f-91dd-2003f3436fa2.jpgTJI-Seoul: Judging SessionCurrent cancer immunotherapies often fail when tumor cells evade detection by downregulating or modifying peptide-MHC presentation. In this project, we present a modular, quantitative engineering platform based on rationally modified HLA-A*02:01 molecules to improve tumor antigen visibility to T cells. We designed and built three heavy-chain constructs (wild type, single mutant W167A, and quadruple Tyr→Ala variant) plus a constant β2-microglobulin part, all with biotinylation tags for tetramerization. Our approach combined in silico structural modeling (diffdock-guided residue selection) with wet-lab validation (SDS-PAGE, BCA quantification, ELISA binding assays). We demonstrated that engineered variants can meaningfully alter peptide binding affinity, confirmed through rigorous measurement pipelines. Alongside experimental work, we conducted public surveys and expert interviews to align our scientific goals with societal perceptions, developing educational modules to bridge knowledge gaps. This project integrates synthetic biology, immunology, measurement rigor, and human practices into a coherent toolkit for future MHC engineering.https://static.igem.org/peertube/streaming-playlists/hls/be876630-0081-4a55-a316-baff255220ab/48f253a6-2366-4335-99f4-7f0be78b75e9-master.m3u8https://video.igem.org/videos/embed/pwzUGocZNRSM8acvM2rzRn1389072025-11-06T18:47:51.328ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nkxZMGXjx3bxkLqdqgfpRThttps://video.igem.org/lazy-static/thumbnails/65f58a1a-66dc-4ff1-9e8e-1e94e7f764aa.jpgWarsaw: Judging SessionHepatocellular carcinoma (HCC) is one of the most common and lethal cancers, with limited effective therapies. Our project, HepaSwitch, aims to develop a selective mRNA-based therapeutic system that induces pyroptosis exclusively in HCC cells. The system utilizes a toehold switch—a synthetic RNA regulator—designed to recognize HCC-specific biomarkers, such as alpha-fetoprotein mRNA. Upon detection, the switch activates translation of gasdermin, a pore-forming protein that triggers pyroptotic cell death. Using computational modeling, we optimized the toehold switch structure for minimal leakiness and high dynamic range. Experimental validation in vitro demonstrated specific activation in the presence of the target RNA and no significant expression in its absence, confirming its precision and safety potential. HepaSwitch represents a novel approach to RNA-based precision oncology, offering a programmable and modular framework for targeted cancer treatment adaptable to various tumor types. https://static.igem.org/peertube/streaming-playlists/hls/accac30e-62d6-4f43-9514-81659af57fa9/e3a77955-0d9d-43ab-a181-3f2efe21801d-master.m3u8https://video.igem.org/videos/embed/nkxZMGXjx3bxkLqdqgfpRT12210162025-11-06T18:47:54.394ZYES2025 Judging SessionsNOhttps://video.igem.org/w/jwUEb1B65CSWzFFvSALsnuhttps://video.igem.org/lazy-static/thumbnails/6feb81aa-e124-4c4a-8a1d-33e292119d52.jpgNanjing-China: Judging SessionThis project addresses the critical challenges of drug resistance and systemic toxicity in conventional cancer therapy by developing a novel live bacterial delivery system based on an engineered Serratia marcescens strain. We leveraged the native capacity of this bacterium to synthesize prodigiosin—a potent antitumor compound—while implementing biosafety enhancements through msbB gene knockout to reduce endotoxin production. For precise tumor targeting, we functionalized the attenuated strain with carboxymethyl cellulose encapsulation and the KP101 homing peptide. To support quantitative analysis and predictive modeling, we developed a comprehensive computational toolkit including an automated fluorescence image segmentation pipeline, a ConvLSTM-based spatiotemporal prediction model, and the integrated OncoPredict Suite platform. Guided by responsible innovation and the SEEK framework, our project combines synthetic biology with translational tool development to offer a targeted and adaptable strategy for next-generation cancer treatmenthttps://static.igem.org/peertube/streaming-playlists/hls/961542be-535f-4bd3-8dfb-ffbe09fc4686/d480cd84-b98f-4672-b245-450b74178d35-master.m3u8https://video.igem.org/videos/embed/jwUEb1B65CSWzFFvSALsnu1536092025-11-06T18:47:58.646ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5NicHvszuUrSLJq2tu3yMshttps://video.igem.org/lazy-static/thumbnails/54b39d0a-37cc-4ebe-8449-f0cf385aef73.jpgISBICSKIS-BKK: Judging SessionAntibiotic resistance is one of the biggest threats to modern medicine, and Methicillin-resistant Staphylococcus aureus (MRSA) stands at the center of this crisis. Conventional drugs are losing effectiveness, and broad-spectrum treatments often harm the beneficial bacteria we rely on. Our project takes a new angle: instead of fighting MRSA with traditional antibiotics, we use bioinformatics and computational modeling to uncover weak points in its biology using Staphylococcus aureus as a model organism. By mapping its genome and key metabolic pathways, we identify genes essential for building and maintaining its cell wall, which are targets that are unique to the pathogen and absent in healthy microbiota. With these insights, we aim to design next-generation antimicrobials that are precise, sustainable, and less likely to drive resistance. Project SAUR-eus isn’t just about tackling one superbug; it’s about rethinking how we fight infections while protecting the delicate balance of our microbial world.https://static.igem.org/peertube/streaming-playlists/hls/26db5e81-a02b-438f-bc95-1460f006acfc/eb02b56c-647d-408d-9aa1-038e482c488f-master.m3u8https://video.igem.org/videos/embed/5NicHvszuUrSLJq2tu3yMs1437022025-11-06T18:48:00.532ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pjYAQpdCyduF96CJsmkEwMhttps://video.igem.org/lazy-static/thumbnails/33b1b403-8263-4cb9-b8cc-5efbf5601859.jpgSaint-Joseph: Judging SessionGluClear addresses the challenge of accidental gluten exposure, a major concern for individuals with celiac disease and gluten sensitivity. Our project focuses on Bga1903, a naturally gluten-degrading enzyme found in bacteria, and improves its stability and efficiency under gastrointestinal conditions through in silico modeling and protein engineering. By optimizing multiple variants and expressing them for experimental validation, GluClear aims to ensure reliable degradation of trace gluten introduced through cross-contamination. With this approach, GluClear has the potential to support a safer daily life for patients, offering a practical and innovative solution that reduces health risks and increases confidence in food safety.https://static.igem.org/peertube/streaming-playlists/hls/bce87559-6904-4d70-8ef8-bcfff5d7d449/4e3667d5-30f5-4c96-995f-5e2bd85c3677-master.m3u8https://video.igem.org/videos/embed/pjYAQpdCyduF96CJsmkEwM1449052025-11-06T18:48:06.179ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ia4D7W7cefER39V6pVymHShttps://video.igem.org/lazy-static/thumbnails/fbeaa4b7-9a42-485b-9c53-98b26ecb75ca.jpgSUIS-PINGHE: Judging SessionMussel foot proteins (Mfps) are a class of proteins secreted by mussel byssus, featuring exceptional underwater adhesion, waterproofness, toughness, and durability. They exhibit great application potential in fields such as biomedicine, cosmetics, and medical coatings. However, the current production of Mfps mainly relies on direct extraction from mussels, a process that is costly, inefficient, and unable to meet the demand for high yield and consistent quality. To overcome this bottleneck, the present study aims to explore the use of Escherichia coli as a biosynthetic platform for the efficient production of Mfps through a heterologous expression strategy. Furthermore, by applying sequence-based molecular design, we seek to construct functional fusion proteins with strong adhesiveness, enhanced antibacterial activity, and good biocompatibility for the preparation of antimicrobial coatings for medical devices.https://static.igem.org/peertube/streaming-playlists/hls/8aef4b5c-2166-4ab2-9ae7-8440c0ca16bc/0a63d501-0415-43a0-90d6-7e09bc0379a6-master.m3u8https://video.igem.org/videos/embed/ia4D7W7cefER39V6pVymHS1643042025-11-06T18:48:16.226ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tL8gER16zE4BghobB8fCKehttps://video.igem.org/lazy-static/thumbnails/6cd7ad6d-f4cf-47e1-82de-501e463add65.jpgTJUSX: Judging SessionProbiotics hold clear therapeutic promise, yet the evidence base is fragmented and hard to query; single-strain approaches also suffer from weak in vivo colonization and limited robustness, undermining durable efficacy. We therefore move from single strains to rationally designed consortia, empowered by synthetic biology. To enable data-driven decisions, we curated literature and clinical data and built ProbiEase, a platform that integrates a knowledge graph, strain search, and an AI chat interface to generate traceable, citable candidates. We then conduct a second-stage triage via metabolic modeling, evaluating coexistence and cross-interaction potential to derive synergistic strain sets. Using Parkinson’s disease as a case study, we showcase an end-to-end workflow—evidence aggregation → platform prioritization → modeling-based vetting—and, targeting PD-specific needs, propose intranasal nose-to-brain delivery of an engineered probiotic consortium with a modular design spanning adhesion, therapy, control, and safety.https://static.igem.org/peertube/streaming-playlists/hls/e0cff339-beb5-42de-9f7d-4e632a8920db/f1b21c4c-b29e-4058-9eeb-0a1d8004a5ec-master.m3u8https://video.igem.org/videos/embed/tL8gER16zE4BghobB8fCKe1487032025-11-06T18:49:30.248ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cjKWGkBFDmeboVnCcxhNjEhttps://video.igem.org/lazy-static/thumbnails/c5e0f3b7-b976-42bb-b02d-86bb94baaccc.jpgUNC-ChapelHill: Judging SessionPerfluoroalkyl substances (PFAS) are synthetic contaminants that bioaccumulate and are associated with adverse health effects. While remediation efforts target environmental cleanup, strategies to lower PFAS levels within the human body remain limited. We propose a probiotic-based therapeutic approach using engineered Escherichia coli Nissle 1917 (EcN) to sequester PFAS in the gastrointestinal tract. By capturing PFAS before absorption, EcN could reduce systemic exposure and enhance excretion. Our hypothesis is that bacterial PFAS uptake is primarily transporter-mediated. To maximize intracellular retention, we disrupted the TolC-AcrB efflux system. As a proof of concept, we inhibited AcrB using small molecule inhibitor Phenylalanine–Arginine Beta-Naphthylamide. Subsequently, we created a stable AcrB knockout via recA-mediated recombination.This work lays the foundation for probiotic therapeutics targeting PFAS exposure. Beyond the lab, we advance public outreach initiatives to educate and raise PFAS awareness and promote STEM accessibility in our community.https://static.igem.org/peertube/streaming-playlists/hls/5bb2fe74-ec8a-41d0-8c5f-51d8fc788482/11f1b246-3b30-4333-884c-eb0fad72873b-master.m3u8https://video.igem.org/videos/embed/cjKWGkBFDmeboVnCcxhNjE1547032025-11-06T18:49:36.111ZYES2025 Judging SessionsNOhttps://video.igem.org/w/j9Ni89Vom4TiqrjacF7tpmhttps://video.igem.org/lazy-static/thumbnails/de27c8d5-0209-411c-9bd9-a415f59e278a.jpgIISc-Bengaluru: Judging SessionNitrate leaching is a major environmental and human health concern. In our bioremediation-focused project, we aim to insert the nir and nrf operons expressing multiple nitrite reductase genes into Escherichia coli DH5-Alpha and Pseudomonas putida KT2440. We aim to determine the most efficient enzymes for the process via nitrite and ammonium measurement assays, under the XylS/Pm inducible promoter. Simultaneously, we will monitor the plant growth-promoting biofilm that P. putida forms to determine any relation with the aforementioned genes and enzymes. In the dry lab, we will model the ammonium production to predict wet lab results. The model will help us tailor the modified bacterium to specific crop and soil types to optimize efficiency, minimize nitrogen loss, and predict challenges like ammonium toxicity and bacterial overgrowth. We will also build a ML model to predict soil ammonium levels, and changes in ammonium content on application of the engineered bacterium. https://static.igem.org/peertube/streaming-playlists/hls/92fef9fb-2f15-4a60-a419-2c1eb30dfa96/98fb232b-e6fa-47f2-ab7c-f39b30805876-master.m3u8https://video.igem.org/videos/embed/j9Ni89Vom4TiqrjacF7tpm15300262025-11-06T18:49:44.988ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sxiuYLmVursaLBt2RwtkL6https://video.igem.org/lazy-static/thumbnails/7364a138-27ee-447e-9e9b-f4bc980b3baf.jpgSCUT-China-L: Judging SessionWe developed an innovative, eco-friendly method to produce rare ginsenoside Rh1 using synthetic biology. By engineering yeast with metabolic pathways from red algae, we efficiently synthesize Rh1, avoiding the environmental harm and high costs of traditional plant extraction or chemical synthesis. This sustainable approach leverages abundant marine resources, ensuring high-quality, affordable skincare products like serums. Our breakthrough paves the way for greener cosmetics and unlocks the potential of marine bioresources.https://static.igem.org/peertube/streaming-playlists/hls/d6ec7251-dcdf-448a-b4b8-e89521463221/0bcb788c-357c-46ee-8b76-2bec2b4bee0b-master.m3u8https://video.igem.org/videos/embed/sxiuYLmVursaLBt2RwtkL61624032025-11-06T18:49:46.703ZYES2025 Judging SessionsNOhttps://video.igem.org/w/27skERGp7SsrWgF6D6kDcvhttps://video.igem.org/lazy-static/thumbnails/0c4b18a0-7c93-4e1a-8872-867f10a75270.jpgNYU-Abu-Dhabi: Judging SessionCongenital disorders of glycosylation (CDGs) are a group of rare metabolic diseases caused by defects in various stages of the glycosylation pathway. Errors in glycosylation can confuse cellular interactions, causing serious malfunctions in multiple organs and organ systems. The most common type of CDG is PMM2-CDG (or CDG-Ia), where the mutation in the PMM2 enzyme, which converts mannose-6-phosphate to mannose-1-phosphate, leads to decreased glycosylation rate. As a comprehensive solution to this problem, Revitalyze proposes engineering probiotics that deliver the functional PMM2 protein to the patient’s body cells via bacterial extracellular vesicles (bEVs), thereby allowing an enzyme replacement therapy that minimizes disruption in the patients' daily lives. Starting with PMM2-CDG, our delivery system can be expanded to any other type of CDG caused by mutations in enzymes, and potentially other disorders as well. Revitalyze is more than a treatment; it's a step toward hope for all rare disorders. https://static.igem.org/peertube/streaming-playlists/hls/08ffd556-6b30-4fbe-9fbb-f424deaf32f7/2c18aa6f-1414-4187-8bfb-b4295edd5757-master.m3u8https://video.igem.org/videos/embed/27skERGp7SsrWgF6D6kDcv15340132025-11-06T18:49:48.228ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ooYoTGzqwjkznZM9ubcoRFhttps://video.igem.org/lazy-static/thumbnails/833ac5f0-a466-4002-9f74-eeff055808d6.jpgYale: Judging SessionProtein therapeutics have transformed medicine but often suffer from rapid clearance. L-asparaginase, used to treat childhood acute lymphoblastic leukemia, exemplifies this limitation. Conventional PEGylation extends its half-life but can trigger hypersensitivity and disrupt catalytic sites, highlighting the need for precise alternatives. Using genetically recoded E. coli and orthogonal translation systems, we incorporated nonstandard amino acids (nsAAs) enabling copper-catalyzed azide-alkyne click chemistry for site-specific fatty-acid conjugation. To identify tolerant positions, we combined sequence conservation analysis with Golden Gate–based construction of L-asparaginase variants and experimentally evaluated catalytic activity. Several nsAA incorporation sites preserved native bioactivity. These data trained a computational ensemble integrating molecular dynamics, docking, and stability metrics to predict functional outcomes of nsAA substitutions. This pipeline links experimental and computational protein engineering, reducing screening needs and improving therapeutic stability—offering a safer, longer-lasting alternative to PEGylation for more effective leukemia treatment.https://static.igem.org/peertube/streaming-playlists/hls/b55e2afc-8191-4bbe-af4e-bf39016c0db1/ef3a370c-9c81-4095-84da-32e32b0d4c5d-master.m3u8https://video.igem.org/videos/embed/ooYoTGzqwjkznZM9ubcoRF1702042025-11-06T18:50:24.466ZYES2025 Judging SessionsNOhttps://video.igem.org/w/u3VizJNtWdzcvTjWFibaAhhttps://video.igem.org/lazy-static/thumbnails/c6143f72-8668-46df-ad7b-83c16f2f7f30.jpgLeiden: Judging SessionThe lack of precise control over post-translational modifications in synthetic protein production is a significant obstacle in research and biomanufacturing, especially in the development of biopharmaceuticals. To overcome this we developed Self Integrating Scaffolds (SIS), protein fragments flanked by split inteins. This project aims to insert a glycosylated SIS in Immunoglobuline G. To optimise our SIS, it’s necessary to test how efficient two pairs of inteins can be used together. Because of that, we have designed a FRET assay, which enables us to test split intein pairs in high-throughput for their quantitative kinetic compatibility in real-time using only a plate reader. In addition, we applied dynamical modelling, docking simulations, structural comparisons, mathematical modelling and programming in R-studio to provide a more in-depth understanding of all these aspects regarding our SIS and FRET assay. Together, our results lay the foundation of using split inteins to change the world of protein engineering.https://static.igem.org/peertube/streaming-playlists/hls/e3283820-435e-4f43-800c-224ced4f5488/0123bce7-7eb0-4ad6-842f-383b6e22049a-master.m3u8https://video.igem.org/videos/embed/u3VizJNtWdzcvTjWFibaAh1549072025-11-06T18:50:27.373ZYES2025 Judging SessionsNOhttps://video.igem.org/w/eV6CKxkeW5zPRZMvz2jm7Dhttps://video.igem.org/lazy-static/thumbnails/eea150e2-762b-4a79-97be-7e8506a57264.jpgNUDT-CHINA: Judging SessionPrecise control of protein activity is fundamental to cell engineering and underpins the development of advanced cell-based therapies. While transcriptional and translational regulation provide powerful means of control in mammalian cells, post-translational regulation offers distinct advantages by enabling immediate and reversible responses to external stimuli. Here, we present SPARK (Signal-Programmable Activation of Regulated seCretion), which employs engineered molecular anchors to tether secretory vesicles carrying the target protein to the actin cytoskeleton and release them upon signal induction through protein dissociation or cleavage. We demonstrated that SPARK enabled efficient light- and chemically induced secretion of reporter proteins in HEK293T cells, exhibiting a markedly faster response than traditional transcriptional control systems. This platform provides rapid, tunable, and precise control of protein secretion, establishing a versatile foundation for on-demand therapeutic protein production and other applications that require fast and programmable protein release. https://static.igem.org/peertube/streaming-playlists/hls/70b0b1b9-ab0e-4cda-8d72-989c9f0fba91/03547e7f-ebd0-4d52-803b-86a79f2b8272-master.m3u8https://video.igem.org/videos/embed/eV6CKxkeW5zPRZMvz2jm7D15960162025-11-06T18:50:31.181ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nfERoEEj3F4Fye2pHYgAqAhttps://video.igem.org/lazy-static/thumbnails/3bc0e623-0308-46dd-a8e6-c36736a16733.jpgNUS-SPS: Judging SessionMany biological systems are limited by regulation and functionality. Conventional inducible systems that rely on conditional control tend to be stochastic and offer little tunability. Furthermore, many wild-type enzymes display poor catalytic efficiency or stability when expressed in heterologous hosts. Here, we present ECLIPSE (Enzymatic Control using Logic-Based Inducible Promoter System Engineering), a genetic framework that integrates multi-layered regulation with synthetic enzymology. We combine inducible repressor-operator systems with CRISPRi-based dCas9-sgRNA repression to achieve both conditional ON/OFF switching and fine-tuned, graded control of gene expression respectively. We also optimised our effector enzyme through two complementary approaches – host optimization and rational mutagenesis. We then apply this framework to treat hypercholesterolemia, engineering E. coli Nissle to express ECOP170 for the in-situ breakdown of dietary cholesterol. Our probiotic platform thereby acts as a proof-of-concept that bridges precise genetic regulation with optimized enzymatic function, offering a generalizable strategy for designing programmable and robust systems.https://static.igem.org/peertube/streaming-playlists/hls/ac1c448c-6da4-499e-9d4b-0ec3ac8b0a12/8ce902ea-17fc-49c2-a45e-d9564f83544f-master.m3u8https://video.igem.org/videos/embed/nfERoEEj3F4Fye2pHYgAqA1594042025-11-06T18:50:33.315ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fJpwwb5QGEo2KRyjZbN2gthttps://video.igem.org/lazy-static/thumbnails/84e3dcd2-30ef-4815-ac96-20af9e737bf8.jpgUMaryland: Judging SessionRGBio focused on creating an “optogenetic toolkit” allowing regulation of three genes or regulons using red, green, and blue light. This toolkit uses three optogenetic switches to orthogonally regulate gene expression in response to each type of light stimulus. Our team applied this toolkit to bioplastic synthesis and modulation of polymer properties. Bioplastics can be made from standard carbon sources or from waste carbon, making the system robust and allowing for remediation of molecules like waste acetate that are produced in large amounts yearly. Other teams and researchers can use our optogenetic toolkit to regulate their genes of interest without the need for induction molecules, and can easily remove or replace components of our optogenetic switches through a simple restriction digest and Gibson Assembly-compatible insert. https://static.igem.org/peertube/streaming-playlists/hls/774bad99-7005-431d-b927-6808f9827a95/2eb9844c-2e28-4326-8b18-fbc5498bfe90-master.m3u8https://video.igem.org/videos/embed/fJpwwb5QGEo2KRyjZbN2gt1590012025-11-06T18:50:33.863ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vrjUQEerXGdCvL54Cx2aZvhttps://video.igem.org/lazy-static/thumbnails/f112c3ba-1a7c-46b3-8648-904dc19dae8d.jpgPatras-Med: Judging SessionThe Morphe project proposes a new therapeutic approach for the treatment of obesity. A non-invasive gene therapy aiming to restore leptin and insulin sensitivity. By achieving conditional silencing of HDAC6, a protein, that in patients with obesity mainly disrupts insulin and leptin metabolic pathways in the hypothalamus, we manage to reverse the underlying neuroendocrine dysfunction. The HDAC6 knockdown will be facilitated by miRE, a microRNA-mimicking shRNA molecule designed to evade immune detection, while selectively silencing HDAC6 mRNA. We will introduce miRE into AgRP neurons using lentiviral vectors through intranasal administration for permanent genomic integration. This genetic circuit incorporates a three-tiered logic system. A transcriptional AND gate and a post-transcriptional failsafe using endogenous miR-7-5p to prevent activation during normal fasting states. These engineered neurons will continuously monitor metabolic signals and autonomously activate therapeutic intervention only during metabolic dysfunction, creating a living therapeutic system capable of long-term, adaptive regulation.https://static.igem.org/peertube/streaming-playlists/hls/ee62450c-36db-4c8b-82b2-15e4063227a3/ad47dd81-6e90-41e9-a688-f446de705aeb-master.m3u8https://video.igem.org/videos/embed/vrjUQEerXGdCvL54Cx2aZv14530462025-11-06T18:50:38.396ZYES2025 Judging SessionsNOhttps://video.igem.org/w/k3ZgaBwSkNYE4ZSKcpXkfWhttps://video.igem.org/lazy-static/thumbnails/3810d6b9-465d-4a52-bfbb-3e13d1762fd1.jpgShanghai-city: Judging SessionThis project combines synthetic biology with CRISPR-Cas12a technology to create a non-invasive prenatal diagnostic platform for DEB. We designed and constructed a novel plasmid vector for the expression of the Cas12a protein, which was successfully expressed and purified in E. coli through a streamlined synthetic biology workflow. The purified Cas12a enzyme was used in conjunction with Recombinase Polymerase Amplification (RPA) to detect two high-frequency mutations in the COL7A1 gene (c.520G>A and c.6745C>T), which are major causes of DEB. By extracting cell-free fetal DNA (cfDNA) from maternal blood, we were able to amplify and analyze the target mutations. Cas12a’s unique trans-cleavage activity enabled the detection of mutation-specific signals, providing high sensitivity and specificity. https://static.igem.org/peertube/streaming-playlists/hls/9a486924-eab8-482d-8a70-d1861c73eeb6/15309819-14ea-4a8c-8912-43125e9f05a3-master.m3u8https://video.igem.org/videos/embed/k3ZgaBwSkNYE4ZSKcpXkfW1628022025-11-06T18:51:43.799ZYES2025 Judging SessionsNOhttps://video.igem.org/w/g6BH2MgVgf4tVx3bznNrovhttps://video.igem.org/lazy-static/thumbnails/daa6dceb-f2f1-45ce-a738-d6953aa2eed8.jpgTaipei-KCISLK-V3: Judging SessionCardiovascular diseases (CVDs) remain the leading cause of global mortality, highlighting the need for rapid and sensitive diagnostic technologies. We developed an integrated nucleic acid–based biosensing platform that detects CVD-related microRNAs (miRNAs) with high specificity. The biosensor combines three-way junction (3WJ) probe recognition and a split G-quadruplex (G4) DNAzyme switch, where target-induced linker release reconstitutes the G4 structure. The G4/hemin complex catalyzes the oxidation of TMB, producing measurable electrochemical signals on a portable reader. The system achieved a limit of detection of 480 pM, demonstrating strong sensitivity and specificity. To accelerate probe optimization, machine learning (ML) models trained on experimental datasets (2500 miRNA-specific 3WJ probes and 728 split G4 probes) reached 83% accuracy for the 3WJ model and 80% for the split G4 model. This data-driven biosensor framework bridges biosensing probe design and ML prediction, enabling rapid, customizable, and cost-effective miRNA diagnostics for cardiovascular and other diseases.https://static.igem.org/peertube/streaming-playlists/hls/7a41cde2-34f6-454a-bddb-e0b12b32b53d/d8fce5fe-c277-4bc2-9d57-bfb278d90c00-master.m3u8https://video.igem.org/videos/embed/g6BH2MgVgf4tVx3bznNrov17310282025-11-06T18:51:45.707ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rS23k6sdXzG7Scn1enM3azhttps://video.igem.org/lazy-static/thumbnails/2e9ee881-864b-4ed2-abfd-0f324d4801eb.jpgNKU-China: Judging SessionConventional therapies for Alzheimer's Disease (AD) show limited clinical efficacy. Emerging evidence suggests neuroinflammation driven by the primary genetic risk factor, APOE4, is more fundamental. In this study, an active engineered living therapy (ELT) targeting neuroinflammation was systematically designed through the gut-brain axis system. We engineered Saccharomyces cerevisiae for intelligent AD prevention and early intervention. The system's core is a high-specificity AND-gate sensor that identifies two biomarkers in the intestines of early-stage AD patients (including MCI): reactive oxygen species (ROS) and trimethylamine (TMA), then activates a five-enzyme butyrate synthesis pathway comprising four heterologous enzymes. To ensure long-term safety, a pro-apoptotic protein Bax based elimination mechanism is integrated as well. Finally, we integrated multi-scale computational models to systematically evaluate the design's credibility, feasibility and therapeutic efficacy in silico. This sense-compute-actuate design philosophy promises to be a platform technology applicable to an innovative prophylactic and therapeutic AD strategy and other disorders. https://static.igem.org/peertube/streaming-playlists/hls/d1704bc7-fcdc-4b60-893f-d1be4f86446b/de3205e3-0fbb-43b5-a3a1-9d3046ca6340-master.m3u8https://video.igem.org/videos/embed/rS23k6sdXzG7Scn1enM3az14910112025-11-06T18:51:51.806ZYES2025 Judging SessionsNOhttps://video.igem.org/w/383wonR3qaXR9xYAMbL47Thttps://video.igem.org/lazy-static/thumbnails/39a5e705-2825-45f0-b692-2ce84823e444.jpgDNHS-SanDiego-Ca: Judging SessionTAR DNA-binding protein 43 (TDP-43) aggregation driven by stress granule (SG) accumulation is a hallmark of amyotrophic lateral sclerosis (ALS). Our work addresses this through two complementary strategies: antisense oligonucleotides (ASOs) for knocking down proteins implicated in the formation of stress granules and RNA aptamers for limiting TDP-43 aggregation. We identified three proteins whose knockdown reduces SG assembly. For each, we developed, generated, and validated a panel of ASOs through computational modeling and in vitro testing. ASOs targeting DAZAP1 and FAM98A, two critical stress-granule-associated proteins, demonstrated significant protein knockdown and SG suppression. We also developed a machine learning model to predict ASO efficacy for increased wet-lab efficiency. In parallel, we generated RNA aptamers targeting TDP-43's C-terminal domain through a computational pipeline; top candidates bound to TDP-43 with high specificity in vitro. Our dual-strategy approach offers a layered therapeutic strategy for ALS and establishes a novel framework for future disease research.https://static.igem.org/peertube/streaming-playlists/hls/112e0a03-66f0-4f08-adc7-50e40bcc931b/33268463-9764-47a8-b483-f8ff02b628e1-master.m3u8https://video.igem.org/videos/embed/383wonR3qaXR9xYAMbL47T1657052025-11-06T18:51:59.108ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rGYKGqZRPZhRvgB6hgyzRQhttps://video.igem.org/lazy-static/thumbnails/cb5b283c-36d7-4e06-b14c-e1a2178f4378.jpgZZU-China: Judging SessionTo enable early liquid biopsy for breast cancer, this project developed ExoAPT-CRISPR, an ultra-sensitive and specific integrated detection platform targeting four exosomal proteins (HER-2, PD-L1, MMP-9, EPCAM). The modular platform integrates exosome capture with multistage signal amplification. Magnetic beads conjugated with CD63-specific aptamers achieve efficient, broad-spectrum exosome isolation. Highly active Cas14a protein is expressed and purified via a prokaryotic system, serving as the core detection enzyme. Two isothermal amplification modules, Hybridization Chain Reaction (HCR) and Rolling Circle Amplification (RCA), are designed for each target, converting protein binding events into amplified DNA products. These products function as trigger signals: HCR activates the Cas12a–crRNA complex, while RCA activates the Cas14a–sgRNA complex, enabling reporter cleavage and robust fluorescence generation. This strategy achieves precise molecular recognition and signal conversion, providing an innovative, clinically applicable solution for early breast cancer diagnosis and prognostic monitoring.https://static.igem.org/peertube/streaming-playlists/hls/d02d315c-e954-4d12-94e3-93e642ea639e/a0ccf1ec-dd88-4e6e-b44a-4d825b06b61f-master.m3u8https://video.igem.org/videos/embed/rGYKGqZRPZhRvgB6hgyzRQ1656062025-11-06T18:52:05.792ZYES2025 Judging SessionsNOhttps://video.igem.org/w/u8pj7NvGjydmR2af7UAbwzhttps://video.igem.org/lazy-static/thumbnails/f073bde1-3612-4757-b80e-181d130c9f5f.jpgAGORA-KOR: Judging SessionThis study investigated how Korean ginseng affects amine-functionalized polystyrene microplastics (MPs) using a simulated digestion model and liver cell cultures. Researchers found that ginsenosides, the active compounds in ginseng, promote the aggregation of MPs through electrostatic interactions. This clumping effect significantly reduced the bioaccessibility of the microplastics, with a 1:4 (MP:ginseng) ratio lowering it to just 6.52%. Dynamic light scattering and microscopy confirmed that a 1:2 ratio induced the greatest aggregation. Hyperspectral imaging showed a strong binding between ginsenosides and MPs. Critically, when human liver (HepG2) cells were exposed to MPs, co-treatment with ginseng significantly lowered the production of harmful reactive oxygen species (ROS). The findings suggest that ginseng can mitigate the potential harm of microplastics by decreasing their absorption in the gut and protecting hepatic cells from oxidative stress.https://static.igem.org/peertube/streaming-playlists/hls/e3c874a3-eb2e-4df5-adec-b7e83dacada5/802b224d-be4d-4d5e-a7b1-fed1622d7b9d-master.m3u8https://video.igem.org/videos/embed/u8pj7NvGjydmR2af7UAbwz1471072025-11-06T18:52:06.194ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1McWb4fsVVGKEsJYsohT7fhttps://video.igem.org/lazy-static/thumbnails/b2d935f6-6d21-4caa-bccb-d40ce49d7887.jpgMammothEdu-South: Judging SessionPlastic pollution is a global crisis demanding sustainable alternatives. Our project, PHAntom Thalassic, develops a cost-effective method to produce biodegradable polyhydroxyalkanoates (PHA) using deep-sea halophilic bacteria. Focusing on Halomonas strains LA4 and LA5, which thrive in high-salt, alkaline environments, we enable open, contamination-resistant fermentation and wastewater recycling. The phaCAB operon from Ralstonia eutropha (Cupriavidus necator) was introduced into Halomonas via E. coli S17-1λ conjugation, and PHA yield was assessed by Nile Red staining and GC-MS. Using CRISPR/Cas9, we integrated PHA genes into the Halomonas genome. Through extensive Human Practices, we engaged professors, fishermen, policymakers, and industry experts to align our work with real-world needs. Our PHA plastics are designed to degrade safely in marine environments, providing a sustainable solution to reduce ocean pollution and protect coral reefs and mangroves.https://static.igem.org/peertube/streaming-playlists/hls/064fd302-466c-4323-bf49-ba31a9931cb6/5fa049d3-d9f2-4798-b8d9-12bebb3fe445-master.m3u8https://video.igem.org/videos/embed/1McWb4fsVVGKEsJYsohT7f1579072025-11-06T18:52:08.370ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3Wa2yvBViHmeA2fXKvr4Tohttps://video.igem.org/lazy-static/thumbnails/6deeb376-921f-47c8-aa2e-5e4669516cb3.jpgBrno Czech Republic: Judging SessionDairy farmers are struggling to keep their farms profitable - the protein feed, the most crucial element, is also one of the most expensive components for them. The most popular protein source is soybean. It contributed to the loss of natural ecosystems in Brazil's tropical savanna. Duckweed, the fastest-growing plant on Earth, contains as much protein as soybeans and grows 10x faster. It is set to provide an affordable protein source for every farm. But duckweed, as promising as it looks, cannot match 3000 years of selective breeding of soybeans. To make it a crop, we need SynBio. We are developing a method for 5x faster genetic engineering of duckweed, constructing an autonomous cultivation system and a yield prediction model, simplifying the scaling of duckweed. The first steps toward unlocking the massive potential of this tiny plant… To save farmers' money, the Cerrado savanna, and to make plants truly scalable.https://static.igem.org/peertube/streaming-playlists/hls/17c20101-7109-41e6-8698-c90d2d260168/2b6b227e-7703-4799-aaa8-92fcefaad666-master.m3u8https://video.igem.org/videos/embed/3Wa2yvBViHmeA2fXKvr4To15980382025-11-06T18:52:12.712ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1Ac1DERD3d6JvQV2UaFuqBhttps://video.igem.org/lazy-static/thumbnails/4872b4ea-3ce2-42a2-892d-088c1284d2a2.jpgSubCat-Union: Judging SessionBased on synthetic biology principles, this project aims to construct an E. coli that uses low-cost soy whey as a fermentation medium and leverages the natural galactose in soy whey to achieve an auto-induction expression system. The experiment is mainly divided into the following three parts. First of all, at present, E.coli can't use carbohydrates (such as sucrose and stachyose) in soy whey as carbon sources, which makes it difficult to use this rich food industry by-product as fermentation medium. Secondly, we want to construct a self-induced protein expression system. Based on this system, bacteria can directly use galactose in the culture medium as an inducer, thus spontaneously inducing the expression of downstream proteins. Finally, we need to transfer the synthesis module of 3'-SL into plasmid, so that bacteria can synthesize 3'-SL protein in soy whey.https://static.igem.org/peertube/streaming-playlists/hls/04c612f6-5f4b-4215-b7d1-d252fa9e706b/87ac3afd-f679-4e78-8a69-3b93d3de19f6-master.m3u8https://video.igem.org/videos/embed/1Ac1DERD3d6JvQV2UaFuqB1675012025-11-06T18:52:16.550ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7XG9ivHgrNZv4B7BW71bkMhttps://video.igem.org/lazy-static/thumbnails/b55f0d3d-7560-41c1-8779-6d06768407c6.jpgHBUT-China: Judging SessionPlant diseases pose a major threat to global food security and economy. Chemical pesticides cause escalating pathogen resistance and environmental contamination. Cyclic lipopeptides (CLPs) produced by Bacillus species offer a promising and sustainable alternative. However, their large-scale application remains limited due to the low production titers of native strains. In this project, we engineered Bacillus velezensis through an integrated synthetic biology pipeline. ARTP mutagenesis and high-throughput screening were used to isolate high-yield mutants. Key gene mutations were identified and reconstructed in the wild-type strain. A dual-gRNA system was designed to efficiently delete long gene fragments. Furthermore, a computational protocol was designed for NRPS communication (COM) domains prediction and used to direct gene cluster mutagenesis. Overall, our work establishes a modular engineering framework for optimizing and innovating CLP-based biopesticides, offering effective and sustainable solutions for crop protection and contributing a versatile genetic toolkit to the synthetic biology community.https://static.igem.org/peertube/streaming-playlists/hls/385d7a78-3997-48b9-9b36-305eec20ccc3/ce270cc0-2f34-4272-ae15-0d6e4b3faec8-master.m3u8https://video.igem.org/videos/embed/7XG9ivHgrNZv4B7BW71bkM1424052025-11-06T18:52:21.191ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1U3y3RTzYG43WcwXJWCCPThttps://video.igem.org/lazy-static/thumbnails/0deb50d9-7e60-4dc8-8ce6-44675349689d.jpgCambridge: Judging SessionCamiRa, Crop Assessment via microRNA Analysis, is an affordable, easy-to-use, all-in-one miRNA extraction and analysis kit which detects nutrient deficiencies before crops show visible signs for early intervention (i.e. before crop yield is affected). Due to its ease of use, CamiRa can also be used to check the crops after nutrient supplementation to check if they have recovered, to prevent overapplication resulting in eutrophication. Our extraction protocol combines an isopropanol-based chemical precipitation with a hand centrifuge, designed to make a cheap, easy-to-operate and safe extraction procedure that could be carried out by farmers, without needing extensive laboratory equipment and training. After extraction, our analysis tool involves a method of detecting miRNAs from our plant extracts. Three different detection methods have been considered: two using rolling circle amplification (RCA) as a form of isothermal signal amplification (G-quadruplex and Bioluminescence resonance energy transfer (BRET)), and one without amplification based on sandwich hybridisation.https://static.igem.org/peertube/streaming-playlists/hls/07443fc6-5148-452f-8712-66fab70e38e9/a1708a59-8c85-45ae-af0d-0a2537cbb595-master.m3u8https://video.igem.org/videos/embed/1U3y3RTzYG43WcwXJWCCPT14060102025-11-06T18:52:24.872ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8MSNZrsruiWatiAF3Wf3Puhttps://video.igem.org/lazy-static/thumbnails/64f9388b-445d-4eb4-8da1-68f70520cdda.jpgWHU-China: Judging SessionBiological computing holds great promise, yet past engineered bacterial circuits for logic gates have suffered from excessive complexity, cumbersome operation, and reliance on multiple input substances. Our LOGIC project overcomes these problems by developing a novel approach to constructing a biocomputer—utilizing quorum sensing and spatial diffusion to form logic gates. For addition calculation, we construct high-pass and band-pass genetic circuits based on the quorum sensing (QS) system. Through the diffusion of QS molecules in solid media, we can build various logic gates and connect them to perform multi-bit binary calculations. For repetitive operation, we engineer a light-induced QS molecule degradation enzyme and a protein degradation tag to refresh the calculator. Building upon the calculator, we can also build accessories like result storage, decimal result display and latches, demonstrating its extensive prospects. Furthermore, we construct a LOGIC Toolkit with visualization software for future research.https://static.igem.org/peertube/streaming-playlists/hls/3f17c0ce-beff-46a7-9939-b1959a75cb9a/88443a5e-2ccc-48f1-b5af-ba9dfd0c397a-master.m3u8https://video.igem.org/videos/embed/8MSNZrsruiWatiAF3Wf3Pu1560022025-11-06T18:52:30.416ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oECgThGjnLncr8X4B5QyZrhttps://video.igem.org/lazy-static/thumbnails/a2d898bb-76fa-4f44-9b27-ce972bee27f8.jpgUChicago: Judging SessionPhosphorylation is a critical post-translational modification that modulates key cellular processes, yet selectively isolating and studying specific phosphorylated proteins remains a major challenge. Existing tools like phosphorylation state-specific antibodies often lack absolute specificity and require extensive validation. To address these challenges, our project introduces a novel approach that integrates the phosphorylation-specific binding capacity of 14-3-3 proteins with a synthetic binder engineered for high affinity and target specificity. This combination enables precise recognition of a single phosphorylated protein isoform. Coupled to an E3 ligase recruitment system, this 14-3-3-Degradation Complex could facilitate selective ubiquitination and degradation of the phosphorylated target, offering a versatile platform for both phosphoprotein characterization and therapeutic targeting. Using C-Raf as a model substrate, we demonstrate enhanced site-specificity, highlighting the potential of this system to advance phospho-proteomic research and targeted cancer therapies after further research is performed.https://static.igem.org/peertube/streaming-playlists/hls/b78dab18-9ee2-4fe9-8ae6-a002a43abb63/0c99b2a6-ed8b-4d10-a522-f20dc6279475-master.m3u8https://video.igem.org/videos/embed/oECgThGjnLncr8X4B5QyZr1492002025-11-06T18:52:33.427ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6Ak7qWmHw6GohQ3oM1nLYFhttps://video.igem.org/lazy-static/thumbnails/3e787366-4889-4d30-a72e-5f73aec77951.jpgFudan: Judging SessionDR. sTraTeGY is built on "Grape Yeast" chassis, designed to track fungal drug resistance mutations. It transforms the evolution of fungi from a static snapshot into an observable spatio-temporal lineage tree. Its current version has two functions: mutation event recording and cell lineage tracing. Our optimized transcription unit - pSTM1-driven EMSfp499, combines a mutation-sensitive promoter with an EMS-resistant fluorescent protein, enabling high-fidelity recording of mutation dynamics. We developed YeastVerse, a modeling and simulation tool, to predict key parameters such as fluorescent protein expression and maturation, which allows dry-lab simulation to guide subsequent wet-lab experiments. In addition, we have established a DBTL cycle that integrates mathematical modeling with AI-assisted reasoning. We engage rare disease communities, through collaborative art and sensory-inclusive activities, fostering an accessible and participatory scientific environment. By integrating synthetic biology, computing, and community engagements, DR. sTraTeGY provides a new strategy to address the global challenge of fungal drug resistance.https://static.igem.org/peertube/streaming-playlists/hls/2d48c24b-a336-4477-8d2e-2c4956ce57ef/92302330-c68c-46dd-89c0-790483e87db9-master.m3u8https://video.igem.org/videos/embed/6Ak7qWmHw6GohQ3oM1nLYF1570012025-11-06T18:52:36.181ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pLsDo2TuKCBhWuG3t1CG4Bhttps://video.igem.org/lazy-static/thumbnails/a7109b73-c399-429c-9f65-1d7ac22c62d3.jpgUCLouvain: Judging SessionHuman milk oligosaccharides (HMOs) are essential bioactive components of breast milk that support infant immunity, cognitive development, and long-term health, yet current infant formulas provide only a small fraction of their natural diversity. To address this gap, we developed a synthetic biology platform using a modular bacterial consortium of Streptococcus thermophilus, a GRAS (Generally Recognized As Safe), dairy-adapted, and naturally competent chassis. By dividing the HMO biosynthetic pathway among complementary strains, implementing controlled cell aggregation, and establishing metabolic interdependence, we aim to reduce metabolic burden, enhance intermediate sharing, and maintain population balance. This approach is expected to enable the scalable production of a broader spectrum of HMOs than currently available, improving the nutritional quality of formula and establishing a flexible platform for other complex biomolecules.https://static.igem.org/peertube/streaming-playlists/hls/c07755d6-80af-4813-9eee-69a77e968471/ac5eb782-a99c-423d-a566-eff305c1c5b0-master.m3u8https://video.igem.org/videos/embed/pLsDo2TuKCBhWuG3t1CG4B1310002025-11-06T18:52:38.692ZYES2025 Judging SessionsNOhttps://video.igem.org/w/xm9ocDLCf4i4WAc95o6QJUhttps://video.igem.org/lazy-static/thumbnails/236fc512-0aef-4118-a50b-1fedebf5b8a6.jpgUTokyo: Judging SessionWhile current biological tools can identify molecules, they cannot track the precise order of microRNA (miRNA) expression in single cells, creating a critical research bottleneck. Our technology, PENgUIN, overcomes this challenge. It uses a novel “miRNA switch Prime Editing” technique to sequentially record miRNA activity onto a “DNA Tape.” This tape can then be analyzed to reconstruct a complete timeline of expression at the single-cell level. PENgUIN holds the promise of unraveling the mechanisms behind complex medical problems, such as the heterogeneous differentiation of iPS cells and the acquisition of drug resistance in cancer. As a highly adaptable gene circuit component, it is also positioned to become a foundational tool that will drive the next generation of synthetic biology. https://static.igem.org/peertube/streaming-playlists/hls/fddb5705-7ead-42be-be4e-d84e1d9b40a0/ddde41aa-895e-4184-9c8a-830c5b948e27-master.m3u8https://video.igem.org/videos/embed/xm9ocDLCf4i4WAc95o6QJU1451012025-11-06T18:52:40.821ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8HndmKYZTtuSy5KP8T31kvhttps://video.igem.org/lazy-static/thumbnails/5ea308c1-4a0d-4b18-a329-06572fa4806b.jpgYNNU-China: Judging SessionPlant natural products are vital sources of medicines and health supplements, but plant extraction results in high costs and limited accessibility. Microbial production offers a sustainable alternative, yet poor stability and low activity of plant enzymes in heterologous hosts remain major bottlenecks. To solve this problem, we here developed REvoDesign, a rational evolutionary-guided workflow that integrates structural modeling with co-evolutionary data to optimize minimal key residues. REvoDesign synergistically enhances enzyme stability and activity with minimal experiments and mitigates negative epistasis via cross-region mutations. A user-friendly interface with customizable modules makes the tool easy to use. REvoDesign’s effectiveness was validated by improving bifunctional phytoene synthase/lycopene cyclase(CarRP) and taxadiene-5α-hydroxylase(T5αH), leading to collaborations with multiple research teams and companies, including a signed strategic partnership. This data-driven, structure-guided approach provides a powerful solution for engineering enzymes to enable efficient microbial production of plant natural products.https://static.igem.org/peertube/streaming-playlists/hls/3e7689c7-f11a-402f-8679-0703eb518f8b/d8322fb2-0076-4f07-997e-b855f72162f8-master.m3u8https://video.igem.org/videos/embed/8HndmKYZTtuSy5KP8T31kv1587032025-11-06T18:52:42.783ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cdk5WeSUmXbUCRKsJmrAgvhttps://video.igem.org/lazy-static/thumbnails/01417f02-cdaf-4f08-813d-1fd7441484f0.jpgWilliam-and-Mary: Judging SessionThe flow of water is essential to life on Earth, but can also carry negative consequences. Water movement transports pollutants to lakes, spreads harmful microbes through household plumbing, and corrodes infrastructure. Synthetic biology offers powerful solutions, yet few have been implemented in real-world aquatic environments. The lack of SynBio deployment in water environments stems from limited understanding of how engineered organisms function in dynamic environments, in which they must compete within native microbial communities, withstand shifting nutrient levels, and endure various physical stressors. Our project addresses this challenge through an integrated approach of chassis analysis software, predictive mathematical modeling, comprehensive RNA-seq meta-analysis and experimentation with engineered constructs in laboratory and aquatic settings. By analyzing how synthetic circuits behave in flowing water compared to laboratory settings, we uncover foundational design principles that will enable the development of safe, effective synthetic biology applications to tackle pressing global challenges linked to aquatic environments. https://static.igem.org/peertube/streaming-playlists/hls/5acd364c-701a-4f08-8e8c-0c2ca4b3d0b3/b849f577-aada-46bb-8cf2-e83b5380d4a9-master.m3u8https://video.igem.org/videos/embed/cdk5WeSUmXbUCRKsJmrAgv1543012025-11-06T18:52:45.046ZYES2025 Judging SessionsNOhttps://video.igem.org/w/okZiW3xHwoGdCgN6cu91Zzhttps://video.igem.org/lazy-static/thumbnails/2e3ee6a9-55b6-4016-b92a-e14b63cd1fc0.jpgOxford: Judging SessionAntimicrobial resistance (AMR) is a silent pandemic claiming millions of lives each year as more pathogens evade existing treatments. CASPER (cell-based antimicrobial screening and programmable elimination response) offers an integrated platform that unites diagnostics and therapeutics into a single, accessible system. The diagnostic module overcomes limitations of PCR and lateral flow assays by using a two-step reaction that screens for bacterial presence and produces a clear color change as a visible output. This enables rapid, broad-range, and equipment-free detection suitable for low-resource settings. The therapeutic module introduces programmable mini cells and extracellular vesicles as DNA delivery shuttles capable of selectively recognizing bacterial targets and triggering cell death from within. By combining detection and response, CASPER provides a scalable and affordable solution to antimicrobial resistance with the potential to transform infection control and save millions of lives worldwide.https://static.igem.org/peertube/streaming-playlists/hls/b4f3800b-ca84-426e-8b52-1c8fd62de32b/406649f9-f8d5-4c79-8f9f-c31d3a28027b-master.m3u8https://video.igem.org/videos/embed/okZiW3xHwoGdCgN6cu91Zz15370142025-11-06T18:52:46.530ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1G1Pw1Aih1cu1378P3bvfDhttps://video.igem.org/lazy-static/thumbnails/002513a6-5ca4-4925-b75d-5a2ff09e3458.jpgUniMuenster: Judging SessionAntimicrobial resistance (AMR) is a rapidly escalating global crisis that threatens the efficacy of life-saving antibiotics and undermines years of medical and agricultural progress. Beyond the direct health toll projected to reach millions of deaths annually by 2050, the consequences extend to food security, livestock production and trade, underscoring the interconnected One Health perspective in this regard. To address this challenge, our iGEM project Bactolyze develops a modular platform for the discovery, optimization, and application of bacteriophage-derived endolysins as novel enzyme-based antimicrobials. Combining cell-free production for rapid screening, computational modeling of antimicrobial peptide–membrane interactions, and fusion-based engineering, we target clinically relevant Gram-negative pathogens and biofilm-associated infections. By integrating experimental workflows with regulatory insights and stakeholder engagement, Bactolyze lays the groundwork for next-generation enzyme-based therapeutics, complementing antibiotics and widening our arsenal against AMR. https://static.igem.org/peertube/streaming-playlists/hls/05964174-ee90-4b6e-bbc1-5c7a40bdad35/7f23112c-1f6c-44d7-8d9a-36ffee0bd8d7-master.m3u8https://video.igem.org/videos/embed/1G1Pw1Aih1cu1378P3bvfD1532042025-11-06T18:52:48.079ZYES2025 Judging SessionsNOhttps://video.igem.org/w/kSmtBkGM2fzahoLbW73a7Bhttps://video.igem.org/lazy-static/thumbnails/eecaf001-b09e-40ce-8dc7-702f2ec97e52.jpgSustech-Med: Judging SessionColorectal cancer (CRC) is characterized by an immunosuppressive, hypoxic tumor microenvironment (TME) dominated by M2 macrophages. To address this, we engineered the probiotic E. coli Nissle 1917 (EcN) as a targeted living therapeutic. Our engineered auxotrophic EcN strain incorporates two synthetic genetic circuits: a hypoxia-responsive plasmid for tumor-specific production of the STING agonist c-di-GMP, and a synthetic "suicide" circuit for AHL-inducible bacterial lysis and payload release with essential metabolic gene thyA and dapA knockout. This triple system ensures precise immune activation within the tumor and provides a crucial biocontainment mechanism. We further developed a mathematical model to simulate AHL diffusion and its kinetic relationship with therapy, and designed a gut-on-a-chip device for physiologically relevant testing. This work establishes a safe, modular platform for targeted CRC immunotherapy.https://static.igem.org/peertube/streaming-playlists/hls/a0e5711c-3aef-4f16-8c47-040fc243b8b3/f4f8ddc8-cd79-490c-998a-c9ddf43e2310-master.m3u8https://video.igem.org/videos/embed/kSmtBkGM2fzahoLbW73a7B1530062025-11-06T18:52:59.444ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7ZZUx1zTrV8zJD28n9NKaNhttps://video.igem.org/lazy-static/thumbnails/7d5a8032-10a9-45e9-b4ca-8f37b6672533.jpgMPA-USA: Judging SessionColorectal cancer (CRC) incidence is rising globally and increasingly affects people under 40. Current therapies are invasive and often cause severe side effects. We developed a precision therapeutic strategy using engineered Escherichia coli Nissle 1917 (EcN). Neoeriocitrin, a natural flavonoid with antioxidant, anti-inflammatory, and immunomodulatory activities, shows promise in CRC prevention and adjuvant therapy but faces limitations of low yield and high extraction cost. To overcome this, we reconstructed its complete biosynthetic pathway in EcN by introducing VvRHM, UGT73B2, and Cm1,2RhaT, enabling efficient and controlled production. To ensure biosafety, we designed a dual suicide system: arabinose-inducible pBAD triggers in vivo lysis, while low-temperature-inducible pCspA provides environmental containment, both cooperating with MazF. This engineered probiotic integrates high-yield biosynthesis with strict biocontainment, offering a safe, controllable, and effective adjuvant strategy for CRC therapy, particularly for young patients with early-onset disease.https://static.igem.org/peertube/streaming-playlists/hls/38afe99c-c8bc-4924-9f1b-bc62d1996454/bada0a3b-c5ea-4f60-9c1a-f52a645283ff-master.m3u8https://video.igem.org/videos/embed/7ZZUx1zTrV8zJD28n9NKaN1575022025-11-06T18:53:02.889ZYES2025 Judging SessionsNOhttps://video.igem.org/w/dcKVpSanE7v7pj1JNN1NHhhttps://video.igem.org/lazy-static/thumbnails/af5d0a36-4e3f-4fe8-ba97-839374bfc80d.jpgBIT-LLM: Judging SessionWe have successfully developed PROTEUS—a universal AI-driven protein optimization platform based on ESM-2, employing MLM (Masked Language Modeling) for function-oriented fine-tuning. Sequences were categorized into high/low-performance groups based on metrics such as enzymatic activity and thermal stability, and a DMS scoring function was designed to build an intelligent optimization engine. This model can accurately identify key functional sites, perform targeted optimization of low-performance protein sequences (e.g., antimicrobial peptides or industrial enzyme variants), and utilize AlphaFold for structural prediction to validate design rationality. Based on this project, we have developed an open-source software tool that allows users to input a target protein sequence and obtain an optimized solution with one click, providing a universal AI-driven design platform for synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/62d1e9a0-0c20-41b1-9cd6-2c3f6f78eff2/8e2d1e84-f53f-4f6c-9757-cbb950f0d6ea-master.m3u8https://video.igem.org/videos/embed/dcKVpSanE7v7pj1JNN1NHh1591022025-11-06T18:53:06.467ZYES2025 Judging SessionsNOhttps://video.igem.org/w/iHFd9btLvz2ZBih6PeFyQahttps://video.igem.org/lazy-static/thumbnails/53cbb6d9-0558-4cb4-9b5b-533de51ad3d8.jpgHainanU-China: Judging SessionPer WHO 2024 data, around 50 million people globally are suffering from epilepsy. The ketogenic diet is effective for epilepsy by prompting the body to synthesize ketone bodies, yet long-term adherence may cause side effects. To avoid these side effects, we use synthetic biology to synthesize ketone bodies for epilepsy treatment. We engineered Escherichia coli Nissle 1917 with a pathway to produce the ketone body β-hydroxybutyrate (BHB), plus dynamic regulation and safety modules. Encapsulated in hydrogel as a drug, the engineered bacteria colonize the intestines after oral administration to synthesize BHB for therapy. We also developed an intelligent epilepsy monitoring system: a concealed behind-the-ear device (cEEGrid) collects EEG signals, which are Bluetooth-transmitted to a model. After software processing, seizure risk is visualized. Our project aims to provide insights into epilepsy prevention and treatment via synthetic biology, caring for patients. https://static.igem.org/peertube/streaming-playlists/hls/8f7d03f1-0e52-45f4-904a-eda4b9ff8ff1/13ae1ff6-ca13-48d0-b5a8-71db75a34271-master.m3u8https://video.igem.org/videos/embed/iHFd9btLvz2ZBih6PeFyQa1634062025-11-06T18:53:18.507ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tBkFbRoxxZCm33oC3CsbKLhttps://video.igem.org/lazy-static/thumbnails/c0239eee-0025-4b49-b781-54c0ab0cba46.jpgHiZJU-China: Judging SessionThis project develops an ultra-long-acting anti-diabetic and anti-obesity therapeutic by engineering the gut probiotic Escherichia coli Nissle 1917 to produce stabilized human-derived GLP-1. Our integrated system employs an AAF sensing circuit for spatiotemporally controlled synthesis, protein engineering with (unnatural) amino acids to enhance circulation stability, an OR-gate biosafety module for programmable biocontainment, and dedicated hardware for intestinal delivery and in vitro characterization. Together, these components enable safe, efficient, and sustained GLP-1 production, offering a novel oral living therapeutic strategy with improved patient compliance.https://static.igem.org/peertube/streaming-playlists/hls/df95e6bc-79e9-43e2-9a0c-f12fd04814e2/ebe88978-fcb3-433d-b984-208e6cf47842-master.m3u8https://video.igem.org/videos/embed/tBkFbRoxxZCm33oC3CsbKL1482032025-11-06T18:53:20.385ZYES2025 Judging SessionsNOhttps://video.igem.org/w/aSF7DDFxizPiVZepFf2Ktshttps://video.igem.org/lazy-static/thumbnails/9450f7de-f786-4c30-9b1a-1a46b0cf2461.jpgTUDarmstadt: Judging SessionMars has long fascinated humankind. With the growing interest in its exploration, the use of local resources, especially water, is becoming increasingly important. However, its huge natural water resources are contaminated by toxic perchlorate salts and thus unusable. Therefore, we engineer Bacillus subtilis 168 to detoxify perchlorate fully and convert it into harmless chloride and oxygen. To measure perchlorate concentrations, we established an in vivo perchlorate quantification assay that functions via organic phase extraction. To understand the underlying biochemistry, we characterized perchlorate degradation enzymes in vitro and investigated the effect of rational mutations to improve their performance. To enable practical implementation of our project, we built and tested a low-cost DIY anaerobic bioreactor. In order to simulate Martian microgravity, we designed, built and verified a random positioning machine from scratch. This device enables biological studies in simulated microgravity environments. https://static.igem.org/peertube/streaming-playlists/hls/4ff58aac-6b36-4239-bcc4-692ec51a36ec/7d348a93-3e18-4168-b3a1-c28366cb89ca-master.m3u8https://video.igem.org/videos/embed/aSF7DDFxizPiVZepFf2Kts1527022025-11-06T18:53:22.712ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7vjHE77NKTLnatB4ewwhGHhttps://video.igem.org/lazy-static/thumbnails/ded3c563-eff1-4ce0-b237-dbdf49d63f5d.jpgHK-HCY-PCMS: Judging SessionPrimary open-angle glaucoma (POAG) is a leading cause of irreversible blindness worldwide, characterized by progressive optic nerve damage and often asymptomatic until significant vision loss occurs. Current treatments primarily address elevated intraocular pressure (IOP) but fail to halt the underlying retinal ganglion cell (RGC) degeneration. To address this dual pathology, we developed a novel, non-invasive eye drop formulation containing two fusion peptides: FT, which lowers IOP, and BC, which provides neuroprotection by reducing RGC apoptosis. This dual-therapy approach simultaneously targets both key disease mechanisms, offering a more comprehensive strategy to slow glaucoma progression. Our project integrated human practices to ensure viability and societal impact. We engaged patients, clinicians, and bioethicists to refine our work ethically. Through stakeholder dialogue and targeted outreach, we balanced diverse needs and raised glaucoma awareness. This created a positive feedback loop, strengthening our project's purpose and laying the groundwork for future innovation. https://static.igem.org/peertube/streaming-playlists/hls/34aeefd2-793f-4198-b0e4-f280b1271869/c9c629a4-c722-4c10-990c-58673d7577a8-master.m3u8https://video.igem.org/videos/embed/7vjHE77NKTLnatB4ewwhGH14670152025-11-06T18:53:23.602ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uGvUYdRpJDu1VCsFWm8C8phttps://video.igem.org/lazy-static/thumbnails/daa0c15e-05b4-45ed-b315-2bd2e7ab04ed.jpgUBC-Vancouver: Judging SessionSpace exploration is rapidly advancing, accelerating the need to protect explorers and equipment from harsh extraterrestrial environments. Building infrastructure in space is challenging, as transporting construction materials to other planets is both costly and environmentally unsustainable. meduCA addresses this by harnessing the power of microbially-induced calcium carbonate precipitation using carbonic anhydrase (CA) enzymes to turn atmospheric CO₂ into carbon-negative bricks via biocementation. Our system employs Synechococcus elongatus, engineered to surface display CA, enabling efficient CO₂ sequestration and calcite precipitation. Complementary efforts on Earth employ Caulobacter crescentus to biocement hazardous mine tailings, mitigating toxic dust and leaching. Together, these applications demonstrate the versatility of living building materials in both extraterrestrial and terrestrial settings. To empower future teams, we developed innovative software tools, a custom bioink-bioprinting platform, and an inclusivity framework to expand accessibility in synthetic biology in hopes of building a resilient future on Earth, and one day, on Mars.https://static.igem.org/peertube/streaming-playlists/hls/e8681167-6495-48f2-9dfc-7cc9007ec195/872b18b9-ff5b-4c35-83ac-6b41aa360df1-master.m3u8https://video.igem.org/videos/embed/uGvUYdRpJDu1VCsFWm8C8p1639022025-11-06T18:53:24.948ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oCG8igLBVr8zxbuyaMcSGJhttps://video.igem.org/lazy-static/thumbnails/5678c8a3-3c93-4c35-ad26-0519d4e64d18.jpgUFlorida: Judging SessionLong-duration spaceflight causes accelerated bone loss, increasing astronauts’ risk of skeletal weakening. Existing bone monitoring methods rely on invasive sampling, underscoring the need for a rapid, non-invasive diagnostic suitable for microgravity. Targeting osteocalcin, a key marker of bone turnover, our team is developing a de novo protein binder as the foundation for a biosensor. Using BindCraft, an AI-based protein design platform, we generated and refined binder candidates, ranking interactions through HADDOCK3 docking simulations. Top designs were codon-optimized, cloned into E. coli, and purified for testing. Binding kinetics and affinities will be assessed via Bio-Layer Interferometry (BLI). This project integrates computational and experimental approaches to create a modular workflow for selective protein binder development, enabling future biosensors that can monitor astronaut bone health and other biomarkers in both space and clinical settings. https://static.igem.org/peertube/streaming-playlists/hls/b7488dfe-0711-4d33-84c8-c21187c9d26a/2f0a72b4-f939-411c-8a46-8e4e2c3a8472-master.m3u8https://video.igem.org/videos/embed/oCG8igLBVr8zxbuyaMcSGJ1516002025-11-06T18:53:28.628ZYES2025 Judging SessionsNOhttps://video.igem.org/w/95XCcj9FoeEFKpU4EycLyxhttps://video.igem.org/lazy-static/thumbnails/1495f8de-79f9-4c25-a70d-3e6ee81b170f.jpgMUST-Macau: Judging SessionOur project began with bioinformatic analysis and flow cytometry experiments, which revealed that breast and pancreatic cancers frequently exhibit upregulation of both CD47 and HER2 receptors. To address this challenge, we designed a bispecific fusion protein incorporating an active antibody fragment targeting HER2 and a nanobody targeting CD47. These designed fragments, along with those retrieved from existing databases, formed a library of candidate antibody fragments. The most stable fragments with the lowest binding free energy were selected for the assembly of the active bispecific antibody, NanosphinX. Two assembly strategies were tested to link the two selected active antibody fragments into the final bispecific format. Cell viability assays demonstrated that NanosphinX exhibits cytotoxic effects against wild-type breast cancer cells and maintains strong activity even in trastuzumab-resistant cells, effectively inhibiting tumor growth. It also enhanced the cytotoxicity of gemcitabine in gemcitabine-resistant cell lines, providing a rational basis for combination therapy with gemcitabine.https://static.igem.org/peertube/streaming-playlists/hls/417a5d28-91e9-4532-8b15-938a25ede6c7/f7bf0247-6d2c-439c-a590-6c0eccf09715-master.m3u8https://video.igem.org/videos/embed/95XCcj9FoeEFKpU4EycLyx1451002025-11-06T18:53:29.952ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ax9hmJyHEi3kiwzpGPG2XFhttps://video.igem.org/lazy-static/thumbnails/f990c64c-a931-4f30-bea5-9810bcf38ad1.jpgHS-Alpha: Judging SessionOur daily lives depend heavily on paper, yet its production and recycling processes inevitably lead to significant lignin waste. We aimed to harness synthetic biology to transform these wasted resources into valuable products. After extensive consultations with experts in policy, industry, and experimental technologies, we engineered Escherichia coli to convert ferulic acid—a representative lignin degradation product—into high-value compounds. We first demonstrated that E. coli could be adapted, via laboratory-accelerated adaptive evolution, to tolerate simulated lignin degradation liquor. Subsequently, by introducing two key enzymes, CtFCS and CUS, into E. coli, we successfully achieved the bioconversion of ferulic acid into vanillin. Our approach features modularity, transferability, and cost efficiency, making it not only technically feasible but also highly promising for practical application. It highlights the potential of engineered microbes as green and efficient tools for resource recovery, contributing meaningfully to the advancement of circular bioeconomy and sustainable development.https://static.igem.org/peertube/streaming-playlists/hls/4d3b68a6-6d4f-421a-a4f0-84ae87314531/f94f1525-ba78-4d9d-96b7-edcf476c3671-master.m3u8https://video.igem.org/videos/embed/ax9hmJyHEi3kiwzpGPG2XF1578002025-11-06T18:53:41.048ZYES2025 Judging SessionsNOhttps://video.igem.org/w/jP8KZ5QoXjWiMJLTqroCUphttps://video.igem.org/lazy-static/thumbnails/eacadf2b-f888-4747-8957-a43ea55e1e4a.jpgXMU-China: Judging SessionIn our CRUSTA project, we designed and developed an innovative COS-based bio-preservation technology using principles of synthetic biology. This technology provides a green and efficient alternative to traditional chemical preservatives in the food industry. In our project, we achieved chitosan degradation via a secretion system, enhancing the antibacterial performance of the degradation products by 7.96-fold compared to the wild-type. This project not only has the potential to propel technological innovation and catalyze industrial advancement in food preservation but also aims to introduce advanced concepts of synthetic biology and eco-friendly preservation. These initiatives are expected to improve preservation efficiency, elevate food safety standards, and enhance environmental sustainability, thus bolstering market competitiveness and fostering the sustainable growth of the green food industry and the circular economy.https://static.igem.org/peertube/streaming-playlists/hls/98593bfc-82be-4eeb-9cc5-f8dbefb86eaf/606247f4-4c96-47ef-bceb-c22cfbf466e6-master.m3u8https://video.igem.org/videos/embed/jP8KZ5QoXjWiMJLTqroCUp1442042025-11-06T18:53:41.297ZYES2025 Judging SessionsNOhttps://video.igem.org/w/27tHnBvwc1H2TDQMY4u5r6https://video.igem.org/lazy-static/thumbnails/005279f0-bf53-41bd-9110-c43b65126abf.jpgCUHK-Shenzhen: Judging SessionCurrent cancer therapies are limited by chemotherapy resistance, target mutations in precision drugs and severe side effects. As synthetic biology develops rapidly in recent decades, bacterial therapy has emerged as a promising alternative. Meanwhile, ferroptosis—a form of regulated cell death driven by iron-dependent lipid peroxidation—has shown significant potential based on previous studies. Our study integrates bacterial therapy with ferroptosis induction by engineering Escherichia coli to overexpress glutamate specifically in tumor microenvironments. Glutamate can disrupt cellular redox homeostasis by depleting glutathione and accumulating lipid peroxides, thus selectively triggering ferroptosis in tumor cells, with colorectal cancer involved in this study. This approach combines synthetic biology with the potency of ferroptosis, aiming to enhance therapeutic efficacy while minimizing off-target effects through microenvironment-responsive expression. We anticipate that it will provide new insights into bacterial cancer treatments, for innovative combination therapies that improve tumor targeting, reduce side effects, and achieve better clinical outcomes.https://static.igem.org/peertube/streaming-playlists/hls/0900ae22-f5ce-4089-86ae-c9ded457890f/e03f1a1e-5a00-4add-b128-420fc1ef88a0-master.m3u8https://video.igem.org/videos/embed/27tHnBvwc1H2TDQMY4u5r61600002025-11-06T18:53:44.102ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vZQvmRSjY1JxxzdDwqeBLJhttps://video.igem.org/lazy-static/thumbnails/3f74489c-24e5-450b-b44d-5f0b5ad84996.jpgNanjing-BioX: Judging SessionCataracts, a leading cause of global blindness, primarily result from oxidative damage to lens proteins. Current treatment relies on invasive surgery. Superoxide dismutase (SOD), a key antioxidant enzyme, neutralizes reactive oxygen species but suffers from instability and rapid degradation, limiting its therapeutic potential. Manganese superoxide dismutase (Mn-SOD) is an important subtype of the SOD family. This enzyme is closely related to the occurrence and development of cataracts. Our project employs computational biology and machine learning to engineer thermostable, high-activity Mn-SOD variants. These variants will be characterized in E. coli. Furthermore, a multi-scale mathematical model will be developed to simulate the spatiotemporal efficacy of Mn-SOD when delivered as an eye drop, from catalytic kinetics to reaction-diffusion within the eye. The goal is to develop engineered Mn-SOD as a core component of novel eye drops, offering a non-invasive strategy for cataract prevention and early intervention to alleviate the global disease burden.https://static.igem.org/peertube/streaming-playlists/hls/f2ec4f1d-1ed4-44c3-a916-52f91fed0496/426130a9-1944-4b6e-b5c9-1d48a7e5d8b9-master.m3u8https://video.igem.org/videos/embed/vZQvmRSjY1JxxzdDwqeBLJ1462012025-11-06T18:53:44.173ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fp2QVHb12LmpNWxq6XHMDjhttps://video.igem.org/lazy-static/thumbnails/211a6dcc-f9e3-4f78-bfa2-4ff79594469b.jpgCSMU-Taiwan: Judging SessionUlcerative colitis (UC) is driven in part by the IL-23 → JAK2/STAT3 axis. Approved anti-IL-23 monoclonal antibodies work but require injections, are costly, and carry systemic immunosuppression risks. We propose localized mucosal neutralization: three de-patented anti-IL-23p19 scFv prototypes (A/B/C) designed by motif-guided CDR engineering with AlphaFold checks, plus two mAb-derived scFv (risankizumab-p19, ustekinumab-p40) as performance baselines. Validation: recombinant-protein ELISA for binding and a Caco-2 inflammation model measuring p-JAK2^Y1007/1008 and p-STAT3^Y705 inhibition. Long-term, the best prototype will be secreted by engineered '''Lactobacillus acidophilus''' to reduce cost and systemic exposure.https://static.igem.org/peertube/streaming-playlists/hls/74972f1f-d241-47a2-ad76-9c8349e0fc40/6d7ad41f-5912-4467-a9e8-ad4ea433dd74-master.m3u8https://video.igem.org/videos/embed/fp2QVHb12LmpNWxq6XHMDj1131072025-11-06T18:53:45.683ZYES2025 Judging SessionsNOhttps://video.igem.org/w/kn6LmC1Do1UHriKKTqxwXShttps://video.igem.org/lazy-static/thumbnails/34e9cc74-01ff-49f5-9564-4a5ecb6b9458.jpgSubCat-HS: Judging SessionHelicobacter pylori (H. pylori) infection can lead to severe health complications. Current treatments primarily rely on antibiotics, but increasing resistance due to overuse has resulted in frequent therapeutic failures, potentially progressing to more serious conditions. Urease is a critical factor for H. pylori colonization and pathogenicity in the stomach, making its inhibition essential for reducing infection risks. This study focuses on constructing a gene expression system for recombinant nanobodies targeting the H. pylori urease subunit (UreB) and exploring their production in food-grade probiotic bacteria. By delivering these nanobodies via live probiotics, the approach aims to achieve direct and precise prevention and control of H. pylori infection. The research establishes a solid foundation for developing immune-based therapies against H. pylori, demonstrating significant innovation and application potential.https://static.igem.org/peertube/streaming-playlists/hls/9ccfce6d-d77a-44b8-aa5c-e22ed20fd958/31797c55-638c-4167-88dd-732c417e4c52-master.m3u8https://video.igem.org/videos/embed/kn6LmC1Do1UHriKKTqxwXS1549002025-11-06T18:53:50.973ZYES2025 Judging SessionsNOhttps://video.igem.org/w/r3g6HF6boAmy4Lfkscc1Afhttps://video.igem.org/lazy-static/thumbnails/5b16e8ab-8a52-482c-bedc-188f0329c58a.jpgAthens: Judging SessionMicroplastics, plastic particles smaller than 5 mm, can bind harmful molecules and commonly cause inflammation and oxidative stress in cells. Due to their polymeric structure, they show high affinity for Carbohydrate-Binding Modules (CBMs), domains found in carbohydrate-active enzymes (CAZymes) that normally bind polysaccharides. The effects of PET, LDPE, and PS microplastics are being studied in Drosophila melanogaster fed with microplastic-enriched food. A genetically modified Saccharomyces boulardii CNCM I-745 strain, engineered to display CBM on its surface using the Aga2p system, is added to the flies’ food to test in vivo microplastic binding and excretion. Yeast viability is evaluated in a bioreactor simulating the large intestine, supporting its potential as a live therapeutic delivery system. Adsorption kinetics are modeled in an in silico intestinal environment, and molecular docking and machine learning (Pythia) are used to predict and optimize CBM–polymer interactions for future experimental validation. https://static.igem.org/peertube/streaming-playlists/hls/cac54245-ee89-4466-996e-1894601e6d2a/aa10e9d1-aa96-4c73-9065-71ce3f988c33-master.m3u8https://video.igem.org/videos/embed/r3g6HF6boAmy4Lfkscc1Af1354062025-11-06T18:53:52.982ZYES2025 Judging SessionsNOhttps://video.igem.org/w/xnEcKxESmEGZ6CYjDLEW8dhttps://video.igem.org/lazy-static/thumbnails/708008fc-1c0e-4b3a-aef3-85db08574af8.jpgPekingHSC: Judging SessionThe global incidence of cirrhosis is on the rise, and current therapies can only delay disease progression, often requiring lifelong medication. Existing studies have confirmed that S-adenosylmethionine (SAM) has unique value in restoring hepatocyte metabolism and function. However, its clinical application faces challenges such as low oral bioavailability and the risk of inducing the transition from cirrhosis to hepatocellular carcinoma due to sustained elevation of hepatic SAM concentrations beyond physiological levels with long-term use. To precisely regulate SAM in cirrhosis, we engineered a SAM-responsive aptazyme, ReguSAMe, by fusing a SAM riboswitch to the HDV ribozyme followed by multicycle evolution. By embedding ReguSAMe into the 3'UTR of MAT1A mRNA, we established a negative feedback circuit for SAM homeostasis in hepatocytes. it expresses MAT1A to synthesize SAM when levels are low and self-cleaves to terminate expression when levels normalize. This precise control offers a promising therapeutic strategy with reduced side effects.https://static.igem.org/peertube/streaming-playlists/hls/fe1175f8-3100-481a-b94c-5eb273648e8a/16ce7f3d-e8c0-4cb0-9e61-0fba98e4e5c0-master.m3u8https://video.igem.org/videos/embed/xnEcKxESmEGZ6CYjDLEW8d1588002025-11-06T18:53:54.909ZYES2025 Judging SessionsNOhttps://video.igem.org/w/jaMNT5n2zUGRyzQNERZty9https://video.igem.org/lazy-static/thumbnails/3f11cd63-b2e1-46e9-a09d-8be899baa589.jpgIIT-Bombay: Judging SessionStaphylococcus aureus (S. aureus) forms biofilms that protect bacterial cells and confer strong resistance to antibiotics, making them a major cause of chronic and persistent infections. These infections are particularly harmful in immunocompromised patients, exacerbating conditions such as cystic fibrosis, tuberculosis, and catheter-associated urinary tract infections (CAUTIs). Staphylococcus epidermidis (S. epidermidis), a common skin commensal, secretes an extracellular serine protease (Esp) capable of cleaving autolysin, an essential factor in biofilm formation responsible for extracellular DNA (eDNA) release, which enhances biofilm stability. However, Esp also targets human biofilm components and other host proteins, limiting its therapeutic potential. To make Esp a viable therapeutic agent, it must selectively cleave bacterial biofilm proteins—specifically, autolysin—without degrading human substrates. To achieve this, we aim to engineer Esp through site-directed mutagenesis (SDM) to enhance its substrate specificity toward the autolysin. By introducing targeted mutations based on Esp–autolysin (Atl) interaction analyses, we seek to reduce its off-target activity against human proteins while maintaining its biofilm-degrading capability, enabling its safe use as an anti-biofilm therapeutic.https://static.igem.org/peertube/streaming-playlists/hls/93226b90-3715-4727-9a92-e0fa1ba14f4c/50054c84-5b97-41ef-9f14-ccecc05e2bd2-master.m3u8https://video.igem.org/videos/embed/jaMNT5n2zUGRyzQNERZty99800152025-11-06T18:54:00.305ZYES2025 Judging SessionsNOhttps://video.igem.org/w/9f37XX888oXZc2tfzQ3HCehttps://video.igem.org/lazy-static/thumbnails/6b1ada2c-d655-4e84-bd5e-d14ec165b0a4.jpgEvry-Paris-Saclay: Judging SessionBillions of years ago, cyanobacteria transformed Earth’s atmosphere through carbon fixation, enabling the metabolic foundation of modern ecosystems. Yet, despite its central role, photosynthetic carbon fixation has not changed much since its origin. With SOLARIS, we reexamine this long-standing process from the perspective of synthetic biology, foundationally changing and advancing CO₂ fixation in cyanobacteria. Our solution lays the groundwork for photosynthesis 2.0 to overcome the kinetic and oxygen-sensitivity limitations of RuBisCO by introducing a distinct carbon fixation cycle supported by a carbonic anhydrase system we newly identified and confirmed for activity. This has the potential to make cyanobacteria far better at fixing CO₂ from the atmosphere and turning it into biomass. SOLARIS offers the tools and methodologies for rewriting core metabolic pathways with synthetic biology for optimizing synthetic carbon fixation cycles in vivo and in vitro, a foundational step toward programmable photosynthesis and a new generation of engineered phototrophs.https://static.igem.org/peertube/streaming-playlists/hls/42bed41f-839b-42a6-871f-3d7850bc81e9/d320f1da-d479-4399-a93f-d7822b9d0e08-master.m3u8https://video.igem.org/videos/embed/9f37XX888oXZc2tfzQ3HCe1558032025-11-06T18:55:24.092ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fBUEYYNrSD4RFS5UQdc4Wxhttps://video.igem.org/lazy-static/thumbnails/eaf80ccd-1728-4bb4-946f-c4f60a423f37.jpgBarcelona-UB: Judging SessionAs synthetic biology positions itself as a field of the future, the need for new tools that allow better control of protein expression and new options for genetic engineering is clear. SKIPPIT is a platform that harnesses the full power of STOP Codon Readthrough elements, from both characterising them to making them into a tool: a first-in-class readthrough riboswitch. STOP Codon Readthrough elements interact with the ribosome at the STOP codon site, leading to the STOP codon being decoded by a tRNA instead of the termination complex, allowing translation to continue beyond the STOP. Designing this switch has only been possible thanks to the development of a cutting edge Software: TADPOLE. This software uses computationally-predicted RNA structures to optimise the design of RNA switches from just two RNA sequences. https://static.igem.org/peertube/streaming-playlists/hls/76636efb-e6a1-42e0-aa1c-260619f5413f/c1400ae9-2b5c-41d4-9e71-6b65f64c8908-master.m3u8https://video.igem.org/videos/embed/fBUEYYNrSD4RFS5UQdc4Wx15830142025-11-06T18:55:25.975ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6Px8ysEfFAijJS29osANTJhttps://video.igem.org/lazy-static/thumbnails/ebca228a-62d0-497e-97c7-646271a65081.jpgShanghaitech-China: Judging SessionChronic rhinosinusitis (CRS) is a widespread yet underestimated disease that causes severe discomfort and lacks effective clinical solutions. To address challenges in early diagnosis and precise treatment, we focused on Granzyme K (GZMK), a key enzyme driving CRS progression. Centered on this target, we established an integrated diagnostic–therapeutic framework. A colloidal-gold rapid test strip enables early and accessible detection, while small-molecule inhibitors achieve precise enzymatic inhibition and inflammation control. In parallel, we developed two supporting technology platforms: Prometheus, for de novo protein design, and Nexus, for high-throughput affinity measurement. They enable efficient design and validation of high-affinity protein binders, contributing more powerful research tools to the field of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/2f20d5d2-79ce-484b-8483-5a478ff05360/cdfbbacd-9bf1-4182-a427-61a33e6d78bc-master.m3u8https://video.igem.org/videos/embed/6Px8ysEfFAijJS29osANTJ17070192025-11-06T18:55:30.290ZYES2025 Judging SessionsNOhttps://video.igem.org/w/wb841rieaE5HVxye9xGcKmhttps://video.igem.org/lazy-static/thumbnails/9b924b16-8925-4cb7-9227-0f2d01c34fe1.jpgRUBochum: Judging SessionDesferrioxamine is the most economically important siderophore, used in life-saving chelation therapy for thalassemia patients and iron overload disorders, plus industrial applications like gallium recovery from wastewater. However, high production costs limit its accessibility. Current production relies on Streptomyces pilosus, which suffers from slow growth, low yields, and complex lifecycles that complicate industrial-scale fermentation, making it unsuitable as a production platform. Our team is transferring the desferrioxamine biosynthetic gene cluster to Rhodococcus, which doesn't naturally produce desferrioxamine but is well-established in industry for producing complex secondary metabolites. Rhodococcus offers fast growth, high scalability, and excellent fermentation characteristics. Both species belong to Actinobacteria, sharing similar genetic architecture, codon usage, and metabolic frameworks necessary for expressing the desferrioxamine pathway. To confirm successful pathway integration and transcriptional activity during transfer, we designed a split-GFP monitoring system. We aim to reduce desferrioxamine production costs and increase its accessibility for medical and industrial applications.https://static.igem.org/peertube/streaming-playlists/hls/f45bf17f-f975-415e-aa6a-b81d1ddff8ce/055932e5-f506-4519-8858-63581bc4617d-master.m3u8https://video.igem.org/videos/embed/wb841rieaE5HVxye9xGcKm1348012025-11-06T18:55:56.526ZYES2025 Judging SessionsNOhttps://video.igem.org/w/miPSRkV4VTQL3rDegfG4kGhttps://video.igem.org/lazy-static/thumbnails/9fac8199-61b4-4246-917f-f4a87d1908f7.jpgGYHS: Judging SessionTetracycline antibiotics (TCs), among the most globally used antibiotics, persistently accumulate in environments (e.g., water, soil), threatening ecosystems and human health. Current detection methods face limitations in sensitivity, cost, and field applicability. We developed TCsensor, a detection platform for on-site TC monitoring. An engineered Escherichia coli (E. coli) biosensor uses a tetracycline-responsive tet promoter linked to a reporter gene, enabling visual, semi-quantitative detection directly in environmental samples. To ensure biosafety, TCsensor incorporates a robust triple-induction lysis system (temperature-sensitive, L-arabinose-inducible, and lactose-inducible), enabling precise engineered cell self-destruction upon application of specific external signals post-detection, thereby preventing environmental release. This integrated "detect-and-destroy" system offers a practical, field-deployable solution for environmental TC monitoring with minimized biosafety risks.https://static.igem.org/peertube/streaming-playlists/hls/a473ec20-eb5c-46c3-8083-4b02c42e6022/61eaff70-d78c-43dd-83d7-e625d1d16ba2-master.m3u8https://video.igem.org/videos/embed/miPSRkV4VTQL3rDegfG4kG1587042025-11-06T18:57:11.726ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sg1TBwQ7UMUvu93E46HoH1https://video.igem.org/lazy-static/thumbnails/b116b394-cd2d-43dd-bde5-ed8ad9b6693e.jpgLethbridgeHS: Judging SessionIn Alberta, more than 14,000 farmers grow over 6.6 million acres of canola each year. As Canada’s most valuable crop, canola contributes nearly $30 billion annually to the economy. However, climate change, particularly persistent drought, threatens productivity. Developing drought-resistant canola could help secure the sector’s future. One promising strategy combines plant-growth-promoting rhizobacteria with RNA interference (RNAi) to silence genes that reduce drought tolerance. A 2020 study in Arabidopsis thaliana found that overexpression of the transcription factor bHLH61 impaired drought tolerance, while loss of function improved it. Since a homologous gene exists in canola, targeting it may enhance drought resistance. Our approach engineers Arthrobacter globiformis to produce small-interfering RNA (siRNA) against bHLH61. Incorporated into seed coatings, the bacteria colonize canola roots and deliver double-stranded RNA (dsRNA) to silence the gene. This method could improve drought resilience in canola and help mitigate the impacts of climate change.https://static.igem.org/peertube/streaming-playlists/hls/d4a64f63-945e-460c-bf73-3d205723237a/ab12e4d0-6688-432d-b23e-19ec11c1a7ab-master.m3u8https://video.igem.org/videos/embed/sg1TBwQ7UMUvu93E46HoH11476012025-11-06T18:57:17.276ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uMatRT2cEGvaZ9LpWjvAMBhttps://video.igem.org/lazy-static/thumbnails/25f06b30-a719-4c88-957c-e5d60efcf40d.jpgBielefeld-CeBiTec: Judging SessionWe present Cellective: a riboswitch-based therapeutic platform that selectively targets cancer cells by detecting specific microRNAs and mRNAs, subsequently translating a cellular kill system. This platform is intended to be further developed specifically for the treatment of triple-negative breast cancer (TNBC), a particularly aggressive and hard-to-treat form of breast cancer. The selective detection of cancer-specific marker RNAs using the engineered riboswitch RNAs enables a highly specific, minimally invasive therapy that spares healthy cells and is only activated in tumor-relevant contexts. The modular design allows for flexible adaptation to different tumor types and RNA profiles, allowing personalized medicine. We successfully engineered this therapeutic system and confirmed its functionality.https://static.igem.org/peertube/streaming-playlists/hls/e90e31d1-4976-4f4b-ae37-dc9c99255645/1c3540a7-acc9-42e6-8156-b9f35cd77e74-master.m3u8https://video.igem.org/videos/embed/uMatRT2cEGvaZ9LpWjvAMB1557082025-11-06T18:57:38.958ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nXp6kipj37zCeYpY24veHbhttps://video.igem.org/lazy-static/thumbnails/b6587040-5357-4b66-bc21-a532f15caf5b.jpgZJU-China: Judging SessionTo better PROTECT, we must first DETECT. LumaManta, developed by ZJU-China, is an all-in-one bio-intelligent underwater device for continuous spatiotemporal detection and treatment of aquatic environments. Aiming to advance environmental conservation, it integrates four biological modules—Detection, aTF Production, Treatment, and Algae–Bacteria Symbiosis—within a manta-ray-inspired body to achieve autonomous ecosystem monitoring. The Detection Module employs a cell-free biosensing system using DNA strand displacement, and PSR amplification to detect metal ions, biomolecules, and eDNA in real time. The aTF Production Module applies AI-assisted protein reprogramming to expand sensing specificity, while the Treatment Module uses protein scaffolds for pollutant absorption and molecular collection. The Symbiosis System maintains a cyanobacteria–E. coli co-culture for CO₂ fixation and nutrient cycling, enabling sustainable, long-term operation. LumaManta represents a new paradigm for bio-driven conservation technology—turning detection into the first step toward sustainable protection of aquatic life.https://static.igem.org/peertube/streaming-playlists/hls/b1cc0cd5-0e1e-4828-97f9-a7f6fdf73900/823832cd-d409-4109-ae4c-30f2b594d6ff-master.m3u8https://video.igem.org/videos/embed/nXp6kipj37zCeYpY24veHb14990122025-11-06T18:57:43.070ZYES2025 Judging SessionsNOhttps://video.igem.org/w/a8W4UGaW8tsoiFoaKffvqEhttps://video.igem.org/lazy-static/thumbnails/0d0eef1f-d305-43d0-ac27-367216dca9c1.jpgDUT-China: Judging SessionHepatocellular carcinoma poses a severe global burden, with China accounting for nearly half of all cases. Current therapies face challenges in specificity, resistance, and cost. To overcome these limitations, R‑Home presents an integrated mRNA platform for precise HCC treatment. Our unified mRNA system enables dual-protein regulation, restoring tumor suppressor HNF4α while degrading oncogenic TGF‑β via p-PROTAC. We enhance specificity through GPC3-targeted LNPs and miR-21-responsive RNA switches (exCAG and eukaryotic toehold), ensuring tumor-selective expression. The platform also features optimized 5′UTRs and a spatial PK/PD model predicting drug behavior in tumors. We provide this complete system to the iGEM community, including a standardized Part Collection with optimized UTRs, eukaryotic RNA switches, and targeted delivery components, along with open-source computational models and hardware specifications - collectively advancing the development of accessible and precise cancer therapies,paving the way for accessible and precise cancer therapies.https://static.igem.org/peertube/streaming-playlists/hls/49fdc648-5a93-4054-9b3c-68a49f7781da/558308ea-e69b-47f8-bc3d-abec698baf61-master.m3u8https://video.igem.org/videos/embed/a8W4UGaW8tsoiFoaKffvqE1517052025-11-06T18:57:46.045ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fizEDbbnxNCSRR8WZ4EY36https://video.igem.org/lazy-static/thumbnails/e26626d2-dc50-424f-8290-2cc222e14267.jpgCornell: Judging SessionMartian soil is rich in perchlorates, a molecule found to be toxic to both plant growth and human homeostasis. This compound serves as a significant barrier to Mars exploration and long-term colonization. Team Cornell proposes PRoSPER, Planetary Removal of Soil Perchlorates and Enrichment Remediation, as a means of establishing future Martian settlements through bioremediation and traditional agricultural development. PRoSPER utilizes a microbial coculture of E. coli with a genetically engineered perchlorate reductase pathway, and Synechococcus sp. PCC 7002 to uptake the resulting chloride byproducts. This coculture will be housed in a novel Adaptive Reaction Chamber bioreactor family that is easily adjusted to optimal growing conditions. PRoSPER improves the viability of Martian settlement by not only removing a key obstacle to plant growth but also encouraging a dual-market strategy approach that can be used to advance the future of space exploration.https://static.igem.org/peertube/streaming-playlists/hls/73d45537-7075-435d-b5c5-7a6400f50819/9bb2d7d7-0ae7-4577-9566-764dd8a367c7-master.m3u8https://video.igem.org/videos/embed/fizEDbbnxNCSRR8WZ4EY361722072025-11-06T18:58:04.069ZYES2025 Judging SessionsNOhttps://video.igem.org/w/eBSe4X5i6H1bud53esT9G2https://video.igem.org/lazy-static/thumbnails/c9f5090f-e3c9-4e86-8576-5b84b59f62a6.jpgJLU-CP: Judging SessionTuneable Dream Drive: To address sleep disorders caused by circadian rhythm disruption during space missions, the JLU-CP team engineered a multi-layer regulatory melatonin synthesis system using Escherichia coli Nissle 1917 (EcN) as a chassis. This system integrates a red-light-controlled genetic circuit with the serine recombinase Bxb1, enabling reversible promoter inversion to switch between serotonin production and melatonin biosynthesis. A pharmacokinetic (PK) model optimized dosage under simulated microgravity, while deep-learning-driven enzyme engineering enhanced HsAANAT catalytic efficiency. We then built an expression model to predict melatonin yield under light conditions for controllable production. For biosafety, the design includes a hypoxia-activated toxin–antitoxin module and tryptophan-auxotrophic safeguard. Additionally, we developed iTutor, the most inclusive-iGEM LLM trained on iGEM Wiki, PubMed, and arXiv data, provides real-time computational and experimental guidance. This engineered probiotic functions as a gut-colonizing “biological clock calibrator,” enabling precise, red-light-induced melatonin release to support astronauts’ circadian health during spaceflight.https://static.igem.org/peertube/streaming-playlists/hls/6e48c977-6619-4a3b-8565-9dbda986c769/ac8bfda0-bd25-4076-8c12-27ea756a919f-master.m3u8https://video.igem.org/videos/embed/eBSe4X5i6H1bud53esT9G21589092025-11-06T18:58:06.484ZYES2025 Judging SessionsNOhttps://video.igem.org/w/goRJYttq2J57MuKVc57SxYhttps://video.igem.org/lazy-static/thumbnails/c4403e12-32cb-4e8a-82e0-5fe430759543.jpgWUXI-DSAS: Judging SessionWith the advancement of space technology, human migration to Mars may become a reality in the near future. However, the extreme dryness and temperature conditions on the Martian surface make it impossible for Earth's crops to grow normally, jeopardizing human survival. To address this challenge, the WUXI-DSAS team has proposed a solution: endowing plants with tolerance to the Martian environment. By integrating genes with various stress-resistant functions into plants, their ability to withstand extreme conditions is enhanced, thereby reducing the energy and water consumption of plant greenhouses. Ultimately, this could enable plants to be directly cultivated on the Martian surface. Additionally, this technology can be applied to crop cultivation under extreme conditions on Earth. We firmly believe that one day, we will sow seeds of hope on the surface of Mars.https://static.igem.org/peertube/streaming-playlists/hls/7caa18c6-34ae-4680-a3df-a9559a614c16/639af45c-106e-4b9e-b3ac-f341258d7ae9-master.m3u8https://video.igem.org/videos/embed/goRJYttq2J57MuKVc57SxY1587012025-11-06T18:58:14.926ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4KyhefeDt5RdBrWTmMSkbmhttps://video.igem.org/lazy-static/thumbnails/976473ca-6a92-4ded-93db-22f297d70469.jpgNAIS: Judging SessionCardiovascular and cerebrovascular diseases claim over 17 million lives annually, accounting for 32% of global deaths (WHO, 2019). Leonurine, an alkaloid from Leonurus japonicus, shows preclinical protective effects by reducing oxidative stress, improving circulation, and inhibiting platelet aggregation. To enable sustainable production, we established a dual-platform biosynthesis strategy in Escherichia coli and Nicotiana tabacum hairy root systems. Both platforms heterologously express the final two pathway enzymes, LjUGT5 and LjSCPL, enabling conversion of the supplemented precursors sinapic acid (SA) and 4-guanidinobutanol into leonurine. We compare yield and cost efficiency across systems to identify an optimal, scalable route, providing a stable source of leonurine for cardiovascular protection.https://static.igem.org/peertube/streaming-playlists/hls/1e604a8d-9a93-480c-bd68-7498d9f6a8e4/fafde98a-0cd5-4360-a301-0ed64089ce6a-master.m3u8https://video.igem.org/videos/embed/4KyhefeDt5RdBrWTmMSkbm1526022025-11-06T18:58:21.690ZYES2025 Judging SessionsNOhttps://video.igem.org/w/jokPJxrWVa2jb4P9fw8G3Whttps://video.igem.org/lazy-static/thumbnails/418357ca-5188-47a5-8c8c-8121812d6f8a.jpgLZU-GANSU: Judging SessionDental caries is the most common oral disease, with an incidence rate exceeding 70% in the population. The biofilm of dental plaque, formed by Streptococcus mutans (S.m.) and other bacteria, minerals, and food debris through co-aggregation adhesion, is the main culprit in the development of caries. It is particularly concerning that due to a lack of oral health education, the public often fails to recognize the early symptoms of caries. Early caries in hidden areas are even harder to detect, exacerbating the problem. To address these issues, our team has designed a biological system capable of locating and eliminating high-risk plaque biofilms. Specifically, we've integrated the signal reception module of the quorum sensing system, Com system, from S.m. into probiotics (Lactobacilli), creating engineered bacteria. Additionally, we've developed a unique signal amplification system. When the co-aggregated engineered bacteria within the biofilm receive virulence signals from S.m., they trigger the expression of fluorescent proteins and antimicrobial peptides, thereby enabling the localization and elimination of plaque. https://static.igem.org/peertube/streaming-playlists/hls/94e3133e-7b59-4b70-b11f-370d34dea282/c2f10573-3a3a-4bf0-9086-4e3084b7b5e6-master.m3u8https://video.igem.org/videos/embed/jokPJxrWVa2jb4P9fw8G3W1539062025-11-06T18:58:29.952ZYES2025 Judging SessionsNOhttps://video.igem.org/w/iLNwVNTB7tXgRvDMQqJi3chttps://video.igem.org/lazy-static/thumbnails/772e0aa6-6289-4f9c-bc03-8a3a63af7385.jpgSKLBE-China: Judging SessionGout, driven by hyperuricemia, now affects about 55.8 million people worldwide and is projected to reach 95.8 million by 2050. East Asia bears a disproportionate burden, with a 175.9% increase in cases and 26.4% higher age-standardized prevalence. Current drugs targeting liver/kidney function often cause severe side effects, necessitating safer alternatives. Our project GoutBuster develops an engineered probiotic that modulates intestinal purine-urate metabolism. Biosafety is ensured by deleting the smr resistance gene and assessing gene transferability. Efficacy is enhanced through integration of a high-efficiency urate transporter (UacT) and a secretory uricase, enabling purine absorption blockade, urate transport, and degradation. Support tools include a dynamic dosing model, multilingual voice assistant, public engagement platform (Suprobiotics), and inclusive science communication formats. GoutBuster aligns with WHO goals for safe, accessible non-communicable disease treatments and offers a novel, replicable model for metabolic disease management and probiotic innovation. https://static.igem.org/peertube/streaming-playlists/hls/8fecc29e-29bb-4782-80e1-de3e10a40ab3/207a762b-fc78-491d-9591-8f3905d64ff1-master.m3u8https://video.igem.org/videos/embed/iLNwVNTB7tXgRvDMQqJi3c1536062025-11-06T18:58:31.844ZYES2025 Judging SessionsNOhttps://video.igem.org/w/bsUBuE3SzCd5btibiHWYVLhttps://video.igem.org/lazy-static/thumbnails/13472f2c-f2e0-46fb-b32e-ee01d3ee465b.jpgChalmers-Gothenburg: Judging SessionCandida albicans, responsible for about 65% of Candida infections and 200,000 deaths annually, mainly affects immunocompromised individuals. Current treatments are often ineffective or toxic. In project LATCH, we aimed to improve antifungal therapy by engineering Bacillus subtilis, a generally non-pathogenic human commensal with natural antifungal properties, to target C. albicans. By expressing chitinase and SP1 on its membrane via a linking sequence, B. subtilis can bind to chitin on the fungal surface, increasing local antifungal concentration. Computational modeling guided adhesion dynamics, binding specificity, and expression optimization. Although only the plasmid design was verified and no binding data obtained, the project provided valuable insights and inspired local education on fungal infections and synthetic biology through outreach in Gothenburg.https://static.igem.org/peertube/streaming-playlists/hls/54bd25dc-89c5-4d6e-b589-fa1bf1e257ae/7c415b6a-94ee-4281-acdc-671c5fe15104-master.m3u8https://video.igem.org/videos/embed/bsUBuE3SzCd5btibiHWYVL1396012025-11-06T18:58:33.424ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tFUqzDTM4e4rZ89cbM5iU8https://video.igem.org/lazy-static/thumbnails/1a8b6446-af25-44fa-b660-4f0edc5504de.jpgCAFA-Beijing: Judging SessionWe have designed a fusion peptide sequence aimed at addressing issues in the field of medical aesthetics. The fusion peptide primarily comprises several functional peptide segments. Firstly, to inhibit melanin production in the skin, we employed computer-aided methods to design a competitive peptide analog of the melanocyte-stimulating hormone receptor (α-MSH), which serves to block melanin synthesis. To delay skin aging and promote collagen synthesis, we incorporated segments that mimic growth factors into the fusion peptide sequence, which can stimulate skin cells to produce collagen. Additionally, we added a cell-penetrating peptide segment to the end of the fusion peptide to facilitate the entry of these compounds into skin cells for effective action. We utilize Escherichia coli DH5α for the production of these fusion peptides and have designed a microneedle-based delivery system to administer these compounds effectively.https://static.igem.org/peertube/streaming-playlists/hls/e0390ee3-bd89-42ec-a1a6-bf2d723acda3/a9aef881-6747-49b1-85d9-d272df88aa65-master.m3u8https://video.igem.org/videos/embed/tFUqzDTM4e4rZ89cbM5iU81534092025-11-06T18:58:34.713ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fvKqUE24hRdybpgst19Duchttps://video.igem.org/lazy-static/thumbnails/8d2397a1-8843-4f33-9653-8c3ff10dc5f9.jpgAFCM-Egypt: Judging SessionAsthma is a very common respiratory disease, its severe form is often characterized by uncontrolled or corticosteroid-resistant inflammation. To overcome this, we developed PRESS, a modular therapeutic platform combining a probiotic delivery system (Lactobacillus plantarum) with an siRNA-based silencing tool (CO-BERA) targeting the inflammatory alarmin TSLP mRNA. Our engineered L. plantarum senses airway inflammation through dual inputs (Hydrogen peroxide and acidic pH) and, upon activation, synthesizes CO-BERA to silence TSLP and suppress downstream inflammatory pathways. For efficient administration, we designed a dry-powder inhalation system, optimized by computational fluid dynamics and validated for aerosol behavior and bacterial viability. PRESS adapted multi-layered biosafety measures, including a toxin–antitoxin kill switch to ensure containment. Reinforced by modeling-guided design and educational outreach with achieving eight UN SDGs. PRESS showcasing how engineered probiotics can function as living inhalable therapeutics, providing a safe, sustainable, and targeted solution for asthma and other inflammatory lung diseases.https://static.igem.org/peertube/streaming-playlists/hls/75874660-f183-412e-a6ef-1d7b306930b7/7189b5cc-a0f8-4c44-b548-1813cd190d01-master.m3u8https://video.igem.org/videos/embed/fvKqUE24hRdybpgst19Duc1557052025-11-06T18:58:42.222ZYES2025 Judging SessionsNOhttps://video.igem.org/w/bKnDTWrVruK1Fw2SVaPoTqhttps://video.igem.org/lazy-static/thumbnails/11cc953a-4f86-42a8-86de-3ac968b47c50.jpgESSENTIAL KOREA: Judging SessionThe global obesity crisis demands solutions that balance efficacy, safety, and access. GLP-1 agonists show strong short-term effects but face high cost, side effects, and relapse after discontinuation. Lacto-Bexo uses the gut microbiome as a metabolic health platform. Through a Design-Build-Test-Learn cycle, we identified hisF, a protein secreted in Lactobacillus rhamnosus exosomes; in vitro, hisF cut adipocyte differentiation by ~50%, likely via AMPK activation. Beyond the bench, our Human Practices and Entrepreneurship work—clinician interviews, six-language surveys, and ethical review—addressed safety perception, accessibility, and body-image stigma. The resulting concept is a probiotic, food-grade therapeutic aligned with Korea’s R&D priorities in microbiome and lipid metabolism. Together, we show how synthetic biology, inclusivity, and design thinking can responsibly advance evidence-based obesity management.https://static.igem.org/peertube/streaming-playlists/hls/5709b68b-fec9-46fe-b75c-020d073eb8c6/ea0ddd0d-037f-487a-b3cd-37b20e25530e-master.m3u8https://video.igem.org/videos/embed/bKnDTWrVruK1Fw2SVaPoTq1420022025-11-06T18:58:45.324ZYES2025 Judging SessionsNOhttps://video.igem.org/w/geFsKS8QiuhzLuNjzSVV9Lhttps://video.igem.org/lazy-static/thumbnails/0981f930-3e07-414f-9138-ffea88db0a1c.jpgFSU: Judging SessionAs plastic waste increases, so does the breakdown of larger plastics into smaller pieces called microplastics. Microplastics can be small enough to be absorbed by the human body and cause harm. Microplastics enter our bodies in three ways: skin absorption, inhalation, and ingestion. The primary mode of absorption is oral ingestion. In the small intestine, microplastics transit through the lining of the intestine and enter the bloodstream to be distributed to other organs. Therefore, we have designed and tested peptides that bind to the plastic polystyrene with the goal of eventually expressing them on the surface of a microorganism which will “grab” plastic particles in the small intestine before they can cause harm.https://static.igem.org/peertube/streaming-playlists/hls/7b62115b-f50e-45b2-8516-1e9152dda6f8/c8ccf206-5624-4ece-885f-28f3bea22a7b-master.m3u8https://video.igem.org/videos/embed/geFsKS8QiuhzLuNjzSVV9L1500012025-11-06T18:58:53.747ZYES2025 Judging SessionsNOhttps://video.igem.org/w/15VS3TBA23FjQdARXoujHZhttps://video.igem.org/lazy-static/thumbnails/b66e0b1f-a127-4da1-8948-c4d38520e630.jpgNWU-CHINA-C: Judging SessionType III collagen (COLIII) not only supports tissue elasticity but also regulates the tumor microenvironment by transmitting dormancy signals to cancer cells. To overcome the limitations of animal-derived collagen, we established a synthetic-biology-based microbial production system to produce humanized COLIII, achieving biosafety and functional customization. By introducing the GVMGFO motif, a specific binding site for Discoidin Domain Receptor 1 (DDR1), we engineered COLIII to precisely target DDR1 on tumor cell surfaces. Using molecular modeling, docking, and dynamics simulations, we selected the recombinant COLIII variant (rCOL III) with the most stable structure and highest binding affinity for DDR1.The selected rCOL III was successfully expressed in Pichia pastoris and showed preliminary intervention effects on breast cancer cells in vitro, demonstrating a potential inhibitory role. This project integrates synthetic biology, protein engineering, and computational design, providing a green and modular biomaterial strategy for breast cancer intervention and prevention.https://static.igem.org/peertube/streaming-playlists/hls/00b02b56-82eb-41f8-babb-0391e21d7a6b/c3d6ec20-d327-4420-98f1-ae5a807c1fe1-master.m3u8https://video.igem.org/videos/embed/15VS3TBA23FjQdARXoujHZ1524022025-11-06T18:58:55.679ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vMHtjxo8SS8f1BWxZ9ufmUhttps://video.igem.org/lazy-static/thumbnails/c979db24-ff3e-44cf-ab13-e5f8af5387cc.jpgDUESSELDORF: Judging SessionBioproduction forms the basis of industries from food to textiles and pharmaceuticals, yet fluctuations in metabolite output and limited access to advanced equipment remain major challenges. STREAM addresses these by integrating proof-of-concept metabolic control with affordable, modular hardware, open-access software, and a predictive model. Our system enhances continuous metabolite production through a ratiometric biosensor that monitors concentrations in real time, enabling feedback-driven control. When product formation declines, inducers are added to overcome pathway bottlenecks and stabilize productivity. A mathematical model simulates inducer effects and metabolic dynamics, while an optimization algorithm balances inducer use and yield to minimize costs.An intuitive open-source software allows for easy hardware control. Together, these components demonstrate how low-cost, modular hardware combined with biosensor-guided feedback control can stabilize cultures, reduce metabolic stress, and enhance the reliability of bioproduction - making continuous bioprocessing more accessible, reproducible, and sustainable for teams and labs worldwide.https://static.igem.org/peertube/streaming-playlists/hls/f13b0c58-1950-4352-9a59-c30c3f983df4/7fc4dcc4-38ce-439e-9629-1006e433525c-master.m3u8https://video.igem.org/videos/embed/vMHtjxo8SS8f1BWxZ9ufmU1469072025-11-06T18:58:58.680ZYES2025 Judging SessionsNOhttps://video.igem.org/w/bXEMR2DPLTQVZMan2b6d9Phttps://video.igem.org/lazy-static/thumbnails/5a670236-4595-42c2-9669-854bddda2f44.jpgProfuture-BJ: Judging SessionInfluenza remains a major global health challenge, infecting up to 10% of the population annually and causing significant morbidity and mortality, especially among vulnerable groups. Current vaccines require yearly reformulation due to rapid viral mutation, often resulting in reduced effectiveness. Our iGEM project aims to design a universal influenza vaccine that targets the highly conserved HA2 region of the hemagglutinin protein.https://static.igem.org/peertube/streaming-playlists/hls/58c1330c-41ac-4a0a-afe4-abae636b7777/8fe7c217-8e36-46bd-94df-2cfad3d42f7e-master.m3u8https://video.igem.org/videos/embed/bXEMR2DPLTQVZMan2b6d9P1383012025-11-06T18:59:01.999ZYES2025 Judging SessionsNOhttps://video.igem.org/w/obGQ2G9scggCaRKQrCzB5bhttps://video.igem.org/lazy-static/thumbnails/1c9e2693-e725-4bb4-9a67-5e93c1bdcc12.jpgRDFZ-CHINA: Judging SessionColorectal cancer treatment faces challenges such as severe side effects from conventional therapies and a lack of precise, controllable localized treatment methods. To address these issues, we developed RectomeDy FotoZymogen—an engineered bacterial therapeutic system for colorectal cancer based on red light-controlled precise induction. Using the probiotic E. coli Nissle 1917 (EcN) as the chassis, we constructed four core modules: a Targeting Module (INP-HlpA) for tumor-specific anchoring; a Red Light-Induction Module (PadC-MrkH) that enables precise activation of gene expression via 660 nm irradiation; a Therapeutic Module delivering multi-mechanism anticancer molecules such as Coagulase and PD-L1 nanobodies; and a Safety Module ensuring automatic bacterial inactivation post-treatment. RectomeDy FotoZymogen is administered via a suppository with an embedded LED, achieving full-process precision control of "delivery-localization-activation-clearance." This system provides a localized, safe, and highly effective novel treatment strategy for colorectal cancer.https://static.igem.org/peertube/streaming-playlists/hls/b3a7a640-a268-47a2-80fb-dceb17704166/78fd9dc4-63b5-4740-8027-61713808eb2d-master.m3u8https://video.igem.org/videos/embed/obGQ2G9scggCaRKQrCzB5b1450042025-11-06T18:59:05.347ZYES2025 Judging SessionsNOhttps://video.igem.org/w/h3brWreHQi5Hv2LbhGLDDvhttps://video.igem.org/lazy-static/thumbnails/d1ff1d0c-d03f-48d8-a7b4-412823063a1d.jpgNJTECH-CHINA-A: Judging SessionIn today's society, over one million people die each year from antibiotic-resistant bacteria [1], which is largely attributed to the excessive use of antibiotics over the past few decades. Moreover, globally, as people's living standards improve, keeping pets has gradually become a common lifestyle. Pets not only provide emotional companionship but also improve the quality of human life to a certain extent. However, as the number of pets continues to grow, health issues related to pets are becoming increasingly prominent, among which bacterial infections are particularly notable.https://static.igem.org/peertube/streaming-playlists/hls/81e024f9-1264-492e-aa10-8fd4826c4593/a1b9c196-f7b7-442c-95b3-986540b113cd-master.m3u8https://video.igem.org/videos/embed/h3brWreHQi5Hv2LbhGLDDv1589012025-11-06T18:59:06.281ZYES2025 Judging SessionsNOhttps://video.igem.org/w/dZvqkhtrmqYv8MJQmDpq9rhttps://video.igem.org/lazy-static/thumbnails/4b9b9f6e-784e-4cee-9fbe-80ddf2492b1e.jpgHS-Beta: Judging SessionThe microbiome plays multiple functional roles in human health, sparking interest in utilizing probiotics for disease treatment. As microorganisms can be engineered into intelligent living drugs capable of sensing and responding to their environment, they can colonize the gastrointestinal tract, oral cavity, skin, lungs, and tumors to locally deliver therapeutic agents or transport antigens to activate immune responses. However, bacterial toxicity may limit the dosage and efficacy of engineered bacteria. Therefore, we integrated a microbial encapsulation system, an antigen (drug) delivery platform, and a suicide switch within EcN to construct an engineered EcN system capable of self-protection, peptide drug-presentation, and self-elimination (PPSE).https://static.igem.org/peertube/streaming-playlists/hls/69353071-d0a2-420f-953e-3eac7c9dc6b1/da3acc15-98bc-4bb4-a139-13056d324958-master.m3u8https://video.igem.org/videos/embed/dZvqkhtrmqYv8MJQmDpq9r1265002025-11-06T18:59:07.555ZYES2025 Judging SessionsNOhttps://video.igem.org/w/oNRET49hJpsR3jgE5TgHbWhttps://video.igem.org/lazy-static/thumbnails/1b269c4f-a714-4291-8ccd-841baa0eef78.jpgHZAU-China: Judging SessionHemorrhoids present significant treatment challenges such as symptomatic relief, surgical pain, and high recurrence rates. Based on sociological research, we developed "HemorrEaser", a synthetic biology therapy. Using engineered E. coli Nissle 1917 in oral and topical formulations, our design features three innovations: OMV-delieverying bioPROTAC-mediated HIF-1α degradation combined with an activatable anti-VEGF nanobody to suppress pathological angiogenesis; ROS-responsive release of anti-inflammatory peptides for rapid pain relief; a dietary-component-responsive riboswitch enabling medicine-food collaboration for treatment regulation and safety control. HemorrEaser provides a precise, minimally invasive therapeutic strategy while establishing a new chronic disease management paradigm through lifestyle-integrated therapy.https://static.igem.org/peertube/streaming-playlists/hls/b8b3dfd7-5d7f-4a4d-99ee-e57df4c62b46/239738d4-7985-4274-ac4d-86c4ddbad0a9-master.m3u8https://video.igem.org/videos/embed/oNRET49hJpsR3jgE5TgHbW1316082025-11-06T18:59:08.478ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nvTXaQLb7DoGQRYxV9tFxkhttps://video.igem.org/lazy-static/thumbnails/e0ae17ba-162a-49cd-a959-c3809b91e913.jpgULethbridge: Judging SessionHyaluronic acid (HA) is a biomolecule widely utilized in healthcare and cosmetic applications. Traditionally, HA is extracted from animal or bacterial sources. Research has examined the potential of microbial production using non-pathogenic bacteria. These methods could be a promising ethical and scalable alternative. Given current demand, HA yields remain insufficient. We aim to maximize production efficiency through Multiplex Automated Genome Engineering (MAGE) and specialized E. coli. MAGE enables rapid, high-throughput modification of multiple genomic sites simultaneously, facilitating metabolic pathway optimization and synthetic biology applications. However, MAGE is hindered by high cost, complexity, and limited versatility of existing hardware. Our group is developing the Open-Source Automated Genome Engineering (O-SAGE) platform, leveraging affordable, commercially available components and open-source parts. The goal is to engineer E. coli capable of efficient HA production using O-SAGE, providing a safe, ethical, and scalable source of HA while also democratizing access to advanced genome engineering technologies. https://static.igem.org/peertube/streaming-playlists/hls/ae3c7f4c-1b2d-499c-8c9e-3e8c23da2b2d/8e3fb8cf-2c4e-4e7d-957f-c77042562f55-master.m3u8https://video.igem.org/videos/embed/nvTXaQLb7DoGQRYxV9tFxk1471002025-11-06T18:59:09.663ZYES2025 Judging SessionsNOhttps://video.igem.org/w/g1J7skR1St8HoZqyEYEt9Yhttps://video.igem.org/lazy-static/thumbnails/6c500b5c-1a07-4889-92de-be5e24d7f245.jpgDelNorte-SD: Judging SessionSkin inflammation, like in acne, is driven by immune signals such as nitric oxide and hydrogen peroxide, which amplify irritation and tissue damage. Our therapeutic molecule, Indole-3-acetic-acid (IAA), a plant auxin, has anti-inflammatory benefits by blocking NF-κB signaling and neutralizing reactive oxygen species. Our project is focusing on designing a dual-plasmid biosensor system built as a biological AND gate to detect these cues. The system requires two concurrent inputs: NO detection (via the NorR/PnorV​ promoter to produce LuxR) and H2​O2​ detection (via OxyR/PoxyS​ to activate 3OC6HSL). Only when both LuxR and 3OC6HSL are present will they combine to activate the Plux​ promoter, driving downstream gene expression of indole-3-acetic-acid.https://static.igem.org/peertube/streaming-playlists/hls/7993082a-6fed-4ae7-b488-3c4f6e503d04/9e8a4f83-d3de-44c5-b63f-7f2af011566a-master.m3u8https://video.igem.org/videos/embed/g1J7skR1St8HoZqyEYEt9Y1543062025-11-06T18:59:10.222ZYES2025 Judging SessionsNOhttps://video.igem.org/w/f5dUi7WSxHJdkqXNBnSDRXhttps://video.igem.org/lazy-static/thumbnails/b73ed61e-05e9-4f2d-a307-940c7d24d8fa.jpgCCU-Taiwan: Judging SessionDiabetes affects 589 million people globally, with 18.6 million new DFU cases yearly. DFUs cause infection, necrosis, and amputations, severely impacting life quality. Our project, AGEs Robber, integrates treatment and prevention. We created a hydrogel patch using soluble RAGE (sRAGE) to capture AGEs, reduce chronic inflammation, and promote healing while offering antibacterial and exudate-absorbing functions. For prevention, we conducted community outreach and designed a simple foot-monitoring device for early wound detection. This approach aims to reduce infection and amputation risks, healthcare costs, and improve DFU patients’ quality of life.https://static.igem.org/peertube/streaming-playlists/hls/71f6de03-57d9-4924-b510-da48cbf4ab85/ec144d73-d085-4bb6-926f-452b51ec8029-master.m3u8https://video.igem.org/videos/embed/f5dUi7WSxHJdkqXNBnSDRX1225002025-11-06T18:59:13.533ZYES2025 Judging SessionsNOhttps://video.igem.org/w/t9SHJVzzDvAVTW22DepagRhttps://video.igem.org/lazy-static/thumbnails/964f35ab-baac-4de5-96b8-bf0020e3513b.jpgGzhmu-China: Judging SessionNETMAP-PaurTx-3 project aims to develop a light-controlled, non-addictive pain management system using engineered E. coli Nissle 1917 (EcN) expressing PaurTx-3, a sodium channel blocker, specifically at pain sites. The key innovation is the first light-controlled system for targeted pain management using engineered bacteria, integrating the NETMAP system with PaurTx-3 for precise spatiotemporal control. Experimental results show Gibson Assembly achieved 65% efficiency (vs. <10% for traditional PCR cloning), but PaurTx-3 solubility was only 15% (85% formed inclusion bodies). Hydrogel encapsulation maintained >80% bacterial viability and light-responsive expression. The critical challenge is PaurTx-3 low solubility, addressed by implementing a SUMO fusion tag. The project features multiple safety mechanisms including self-destruct systems and gene blockade, complying with FDA/EMA/WHO standards. Future work includes in vivo testing to develop a non-addictive pain management solution for cancer and burn patients.https://static.igem.org/peertube/streaming-playlists/hls/dbe3f379-e12a-4eaf-9486-26ed023c8623/b6a64b23-b8a1-4186-b0f1-77069f182319-master.m3u8https://video.igem.org/videos/embed/t9SHJVzzDvAVTW22DepagR974022025-11-06T18:59:18.479ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pC4Gy8dWGjbtC3nCvWU1tShttps://video.igem.org/lazy-static/thumbnails/bd860ede-7e1f-46e7-8dd4-40655b534206.jpgTechnion-Israel: Judging SessionBromelain is a pineapple-derived enzyme mixture with powerful medical, industrial, and cosmetic applications, most notably its ability to selectively remove necrotic tissue in burn wounds through enzymatic debridement. However, extraction of the enzymes from the pineapple stems is costly, inefficient, environmentally unsustainable, and limited by agricultural dependence. SynTropica aims to solve this by producing recombinant stem Bromelain, the main proteolytic enzyme in the mixture, in engineered microbial hosts — Escherichia coli, Pichia pastoris, and Bacillus subtilis. This production approach has the potential to drastically reduce costs, simplify purification, and enable scalable, consistent manufacturing. In the long term, the team envisions programmable microbial systems that not only secrete Bromelain on demand, but can serve as living bio-platforms for medicine, agriculture, and research. https://static.igem.org/peertube/streaming-playlists/hls/bf4b3e9f-213a-4da2-a88f-64da7a4eae70/a4457934-24d6-470a-98db-5a59c9d63af7-master.m3u8https://video.igem.org/videos/embed/pC4Gy8dWGjbtC3nCvWU1tS1518002025-11-06T18:59:27.616ZYES2025 Judging SessionsNOhttps://video.igem.org/w/h3i3fcinfME1BWBeZn1J1Vhttps://video.igem.org/lazy-static/thumbnails/e6d928c4-8ecd-4785-bd50-c0fbd0242e5c.jpgSZSAIS-BaoAn: Judging SessionSalidroside, the core component of Rhodiola, exhibits remarkable pharmacological effects in antioxidation, anti-fatigue, immune enhancement, and cardiovascular protection, holding significant market potential. However, traditional plant extraction methods face severe challenges, including resource scarcity, low yield, long growth cycles, and environmental pollution. To address these issues, our team has successfully developed an innovative synthetic biology approach by constructing a novel, sustainable, and cost-effective biosynthetic pathway in Escherichia coli. We have engineered a de novo pathway from glucose, incorporating key enzymes to efficiently convert precursors into salidroside. To further amplify the project's impact and ensure its market viability, we conducted extensive Human Practices and entrepreneurship initiatives. Through questionnaires, interviews, expert consultations, and multi-platform social media promotion, we deepened our understanding of public health needs, paving the way for the commercialization and sustainable development of salidroside products. Our work represents a significant step towards making salidroside more accessible for widespread health applications.https://static.igem.org/peertube/streaming-playlists/hls/81e434e1-fc32-42bf-8d99-9b6e71ae6fcd/638f97a1-7bc6-41ce-b394-b3a181558086-master.m3u8https://video.igem.org/videos/embed/h3i3fcinfME1BWBeZn1J1V1580032025-11-06T19:00:13.674ZYES2025 Judging SessionsNOhttps://video.igem.org/w/dk5d8GxbjrpSj75P1CEQyhhttps://video.igem.org/lazy-static/thumbnails/cf44fe50-3247-46ca-a568-f1103e27d80c.jpgBNDS-China: Judging SessionCats are among the most popular companion animals worldwide, yet many of their health issues remain undiagnosed due to subtle symptoms and limited diagnostic tools. Inflammatory Bowel Disease (IBD), often aggravated by hairball accumulation, is a prevalent chronic condition that compromises digestive health. To address this, we developed MeowTrack, a programmable therapeutic probiotic platform that detects, treats, and records feline gut health. The system senses taurocholic acid (food intake) and calprotectin (IBD biomarker) and integrates these inputs through an AND logic gate, ensuring responses occur only under disease conditions with food available. Upon activation, MeowTrack expresses keratin-degrading enzymes to remove hairballs, butyrate-producing enzymes to restore gut balance, and chromoproteins or fluorescent proteins to visualize disease states in feces. Additionally, a Retro-Cascorder module records transcriptional events linked to inflammation, while a smart litter box equipped with fluorescence detection enables seamless, at-home monitoring of feline gut health.https://static.igem.org/peertube/streaming-playlists/hls/63d763b9-b4b4-4ef0-bdec-e34663a27000/849cc24d-766a-4a28-add0-85bae75d1117-master.m3u8https://video.igem.org/videos/embed/dk5d8GxbjrpSj75P1CEQyh1553092025-11-06T19:03:29.871ZYES2025 Judging SessionsNOhttps://video.igem.org/w/xpyxsF5rW9BDHEx5XzEJPwhttps://video.igem.org/lazy-static/thumbnails/8d957553-dc19-43a6-bbd8-aaf9157f5eaf.jpgICJFLS: Judging SessionThe core components of rose essential oil are geraniol and citronellol, while that of lavender is linalool. These three components share highly similar terpenoid biosynthetic pathways. This commonality provides us with an unprecedented technical opportunity: by modifying microbial cell factories, we enable yeast to produce geraniol (the common precursor substance) and Escherichia coli to synthesize citronellol and linalool. By enhancing the supply of precursor substances and introducing selective catalytic enzymes, we construct a metabolic network that can efficiently synthesize geraniol, citronellol, and linalool. The key lies in the introduction of regulatable promoter systems and artificial gene circuits, which allow for precise regulation of the metabolic flux of each synthetic branch through external induction and culture parameters. This enables end-users to dynamically adjust the synthesis rate of each component according to their personal preferences, and ultimately obtain personalized mixed essential oil components in a single fermentation system at one time.https://static.igem.org/peertube/streaming-playlists/hls/fe5575cb-f83d-4644-aeea-a5189b2d838c/34834c6e-5586-4513-a36e-813e0c1357ee-master.m3u8https://video.igem.org/videos/embed/xpyxsF5rW9BDHEx5XzEJPw1509022025-11-06T19:03:38.974ZYES2025 Judging SessionsNOhttps://video.igem.org/w/akFpYjpYha8QY6jwfHDtmchttps://video.igem.org/lazy-static/thumbnails/0842838b-0888-42e8-b147-6becd3930930.jpgNMU-China: Judging SessionWith the widespread use of plastic products, a large amount of plastic waste gradually decomposes and breaks down, forming plastic fragments with a diameter of less than 5 millimeters, namely microplastics. Microplastics are difficult to decompose naturally and gradually accumulate in the human body. Microplastics can cause imbalance in the intestinal flora, trigger systemic inflammatory responses, and even potentially lead to tumors and cancers. Regarding the issue of how to remove microplastics from the human body, our team proposed to construct a symbiotic system of lactic acid bacteria and yeast, which secretes degrading enzymes to degrade the microplastic particles in the intestinal tract. In addition, this system can also regulate the balance of intestinal flora, enhance the intestinal barrier function, and reduce the oxidative stress caused by microplastics through antioxidant effects, thereby minimizing the possible damage to the body caused by microplastics.https://static.igem.org/peertube/streaming-playlists/hls/4ba1ab3b-5f31-4d9b-a767-cb8271186af7/4218db8b-6253-40fd-888a-1c43460a6dd4-master.m3u8https://video.igem.org/videos/embed/akFpYjpYha8QY6jwfHDtmc1511022025-11-06T19:03:47.017ZYES2025 Judging SessionsNOhttps://video.igem.org/w/gE8F4XgJ8TK3krb8SogLkXhttps://video.igem.org/lazy-static/thumbnails/3548f1cb-0e35-4e92-8cd3-ada132e91a95.jpgBSDFZ-CHINA: Judging SessionAlzheimer’s disease (AD) is a rapidly growing global health challenge, with limited options for early intervention. We developed Neurobloom, a synthetic-biology-based probiotic system using the safe strain E. coli Nissle 1917, featuring three integrated systems: System 1 enables continuous production of sakuranetin, reducing Aβ deposition and neuroinflammation through antioxidant and anti-inflammatory effects; System 2 produces lysophosphatidylcholine (LPC), which supports gut–brain axis regulation, improves synaptic function, and optimizes gut microbiota balance; System 3 incorporates a safety suicide circuit, ensuring the strain deactivates under abnormal conditions to minimize ecological risks. These systems work synergistically to deliver a sustainable, low-barrier, and adherence-friendly intervention, particularly suited for early-stage patients and high-risk populations. Neurobloom introduces a promising strategy for preventive and adjunctive AD care, paving the way toward more equitable and innovative cognitive health solutions worldwide.https://static.igem.org/peertube/streaming-playlists/hls/7ecc127a-310d-4b62-bb11-4f39a8ba536d/11008b86-f641-4588-b66c-c4c7503288e4-master.m3u8https://video.igem.org/videos/embed/gE8F4XgJ8TK3krb8SogLkX1468092025-11-06T19:03:54.847ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4ed1VwJFGXxJVVjXWqzEujhttps://video.igem.org/lazy-static/thumbnails/d794078d-3f7e-42b7-80b3-92274fe56dde.jpgBeijing-HS: Judging SessionCancer has emerged as a global public health challenge. In recent years, nanobodies have garnered significant attention in anti-tumor therapy due to their high affinity, low immunogenicity, and excellent tissue penetration. While commonly used production systems include mammalian cell and yeast expression platforms, they remain costly and intricate. Consequently, developing a safe, controllable, and efficient antibody production system is crucial for advancing tumor therapeutics. This study aims to develop an efficient and controllable nanobody production platform utilizing a red light-induced gene expression system in Escherichia coli. By integrating red light-mediated gene regulation technology with the robust protein production capacity of E. coli, we will achieve precise control over nanobody expression. This system will enable real-time regulation via red light signals, reducing production-associated side effects and energy consumption, while significantly enhancing the efficiency and quality of nanobody production.https://static.igem.org/peertube/streaming-playlists/hls/1a237d74-8514-4420-ba30-4a584ec97dea/5bc27cec-f29d-46f1-b0c0-7f1c4fe2d424-master.m3u8https://video.igem.org/videos/embed/4ed1VwJFGXxJVVjXWqzEuj1514042025-11-06T19:03:54.849ZYES2025 Judging SessionsNOhttps://video.igem.org/w/gGS2hB5Y389Wj45i7pW9i2https://video.igem.org/lazy-static/thumbnails/a2b10a95-0584-422f-b63d-a9f363bde92c.jpgConcordia-Montreal: Judging SessionThe only effective treatment for celiac disease is a strict gluten-free diet. While this approach allows individuals to manage their symptoms, it does not eliminate the risk of accidental gluten exposure due to cross-contamination. Our team is developing an approach centered around engineered probiotic bacteria capable of secreting gluten-degrading enzymes directly in the gut. Delivering enzymes capable of break down the immunogenic peptides responsible for triggering the immune response in individuals with celiac disease. In parallel, we investigated peptide caps that can bind to residual gliadin fragments, masking the key epitopes and preventing the immune system from recognizing uncleaved gluten. Together, these strategies highlight complementary ways to significantly reduce the concentration of harmful gluten fragments before they can activate the immune system, offering a potential layer of protection beyond the limitations of a gluten-free diet.https://static.igem.org/peertube/streaming-playlists/hls/7f2da870-327f-4e6e-adc9-d88faeed32db/27b35a7e-df27-45fd-9d17-22f6249a8251-master.m3u8https://video.igem.org/videos/embed/gGS2hB5Y389Wj45i7pW9i21615032025-11-06T19:04:01.357ZYES2025 Judging SessionsNOhttps://video.igem.org/w/63eiyiyYbb7GKm3cXAW7Mihttps://video.igem.org/lazy-static/thumbnails/bf7fcb63-da08-499f-93c1-5ed1dc9d22ad.jpgEcuador: Judging SessionAvianGuard is an innovative proposal based on a modular platform, designed to be effective against different viruses. In this opportunity, it was validated against the challenge of avian influenza (H5N1), a disease that threatens food security and poultry production. In Ecuador, the vaccines currently available do not fit the small-scale producer model; therefore, our solution consists of a dual-action oral probiotic vaccine, formulated in alginate-chitosan microcapsules that protect its immunological components and ensure their release in the bird’s intestine. The system combines two protection mechanisms: active immunity, generated from conserved antigens expressed in Lactococcus lactis, and passive immunity, through cyclobodies produced in E. coli. Thanks to its easy administration mixed with feed, AvianGuard emerges as an accessible, effective, and low-cost alternative for controlling avian influenza in small-scale poultry production systems. https://static.igem.org/peertube/streaming-playlists/hls/28cd6101-2638-4dca-a703-529ed9c51acb/26c68a24-6150-40e8-9b64-e7c6b7ecf2d0-master.m3u8https://video.igem.org/videos/embed/63eiyiyYbb7GKm3cXAW7Mi1557052025-11-06T19:04:04.344ZYES2025 Judging SessionsNOhttps://video.igem.org/w/wmZLjJaTKrmXhFz9MgsieLhttps://video.igem.org/lazy-static/thumbnails/ce1d9d44-9e32-45ac-b73f-3b0fbad8c8ca.jpgGeorgiaState-SWJTU: Judging SessionThe project aims to develop a dual-action oral health therapy by engineering a probiotic bacterium (Limosilalactobacillus reuteri) to produce antimicrobial peptides (AMPs) that selectively inhibit Streptococcus mutans, the primary bacterium responsible for dental caries. AMP production genes will be integrated into the bacterial chromosome using plasmid vectors to express AMPs, with a quorum-sensing synthetic gene circuit regulating expression so that AMPs are only produced in the presence of S. mutans, minimizing disruption to the natural oral microbiome.https://static.igem.org/peertube/streaming-playlists/hls/f5e0a236-90fb-4004-97e8-80e8ea573b22/8517a944-d0f0-4de1-ba4a-54dfec8915ee-master.m3u8https://video.igem.org/videos/embed/wmZLjJaTKrmXhFz9MgsieL1568052025-11-06T19:04:05.829ZYES2025 Judging SessionsNOhttps://video.igem.org/w/98QTtjajZWU9MGDi6Usmh5https://video.igem.org/lazy-static/thumbnails/21f49d33-08a9-4e6b-b07a-310059de5fa3.jpgAalto-Helsinki: Judging SessionVitamin B12 is essential for red blood cell formation, neurological function, and DNA synthesis. However, millions of people worldwide suffer from vitamin B12 malabsorption. The most effective treatment currently available is lifelong intramuscular B12 injections, which are often painful, inconvenient, and associated with hidden costs, accessibility challenges, and environmental impact. Our iGEM project, AbsorBuddy, aims to develop a safe and effective alternative oral B12+IF supplement by identifying the most efficient and least immunogenic IF variant across five species. Results of our project reveal that bovine and human IF exhibit the highest vitamin B12 binding efficiency with rat IF showing minimal binding. Antibody interference test indicates markedly lower cross-reactivity for bovine and platypus IF compared to human IF, suggesting reduced immunogenic potential. Circular dichroism confirms native-like α-helical folding in bovine IF. Complementary dry lab analyses, shows experimental binding trends and identify favourable geometric complementarity for bovine and human IF.https://static.igem.org/peertube/streaming-playlists/hls/41e17191-016b-4915-9a07-b55ab4b3aea4/fec7355e-33d8-48a9-a33b-3e9af3c976a4-master.m3u8https://video.igem.org/videos/embed/98QTtjajZWU9MGDi6Usmh51716092025-11-06T19:04:08.039ZYES2025 Judging SessionsNOhttps://video.igem.org/w/53ipS34J6bh3z1stHYrmrPhttps://video.igem.org/lazy-static/thumbnails/57691f1c-bb68-4d25-accd-7096cf24dd80.jpgHamburg: Judging Session90% of mushroom poisonings are caused by α-amanitin, one of the deadliest mushroom toxins which can be found in the death cap mushroom. Just half a mushroom can be fatal, as the toxin inhibits RNA Polymerase II, blocking protein production and causing severe organ damage, especially to the liver and kidneys. Although treatments exist, there is no specific antidote yet. Our iGEM project, DeathCapTrap, aims to develop a modular nanobody-based antidote to neutralize α-amanitin in the bloodstream and protect liver cells. In the WetLab, we established a pipeline to produce a nuclear-targeted nanobody in E. coli. We also explored lipid nanoparticles for delivery and designed a testing protocol with liver cell models. In the DryLab, AI tools helped us design toxin-binding proteins. Our goal is to create a life-saving therapy and a versatile platform to fight intracellular toxins, while raising awareness of the dangers of mushroom poisoning.https://static.igem.org/peertube/streaming-playlists/hls/20b6c5b8-dfd7-4834-be2d-4feec6b48871/a26a687b-7ec9-455e-93e6-75d5b3148ccb-master.m3u8https://video.igem.org/videos/embed/53ipS34J6bh3z1stHYrmrP1440042025-11-06T19:04:09.027ZYES2025 Judging SessionsNOhttps://video.igem.org/w/u9r1btafjNsjxqvPnMc3fDhttps://video.igem.org/lazy-static/thumbnails/4765219f-68ca-4e3d-8567-8063629b4871.jpgSquirrel-Beijing: Judging SessionSynSuture addresses the limitations of traditional sutures—poor biocompatibility, infection risks, and non-degradability—through a synthetic biology-driven integration of three functional modules: Bacterial Cellulose (BC) for mechanical strength and biocompatibility; Chitosan/Chitooligosaccharides (COS) derived from shrimp shell waste for antimicrobial and wound-healing effects; and microbially synthesized Curcumin for targeted anti-inflammatory regulation. Using engineered E. coli strains, we produce these components efficiently, creating a multifunctional suture that synergizes structural support, infection control, and anti-inflammatory modulation—all while enabling sustainable biom manufacturing.https://static.igem.org/peertube/streaming-playlists/hls/e3ed3dc9-6e8f-4b78-95cf-d7b72b2f9b81/a4a52d43-fa9c-403f-8ee1-4fa5903b1791-master.m3u8https://video.igem.org/videos/embed/u9r1btafjNsjxqvPnMc3fD1614002025-11-06T19:05:59.555ZYES2025 Judging SessionsNOhttps://video.igem.org/w/dR78LMwv9apiwajFeNWNXKhttps://video.igem.org/lazy-static/thumbnails/0f44a785-7cb1-4442-9c34-8650788b6c66.jpgMissouri-Miners: Judging SessionMetlock is a modular synthetic-biology platform for programmable zinc uptake in E. coli. It decouples the high-affinity ZnuABC transporter from Zur repression by placing a synthetic znuA/B/C operon (no Zur boxes) under an AHL-activated LuxR-pLuxR gate, letting uptake capacity be set on demand without disturbing native homeostasis. First-principles models that span promoter dynamics, translation initiation, ribosome traffic, decay, and dilution predict absolute mRNA/protein levels and map inducer-to-transporter dose responses under burden constraints. Performance is quantified with a dual-plasmid, dual-reporter scheme: one tracks pLuxR activity (GFP), while a second constitutively expresses LuxR; both are tunable via promoter, RBS, and terminator strength. Standardized parts, low-copy backbones, and optional split-plasmid configurations yield predictable, tightly gated zinc uptake for biomining, biosensing, and materials recovery. By pairing modeling with modular design, Metlock delivers an engineering-grade toolkit and calibration workflow that convert sequence choices into quantitative control of metal transport.https://static.igem.org/peertube/streaming-playlists/hls/6808e38c-8bc2-441b-9a83-8961f83e1149/6bd869cb-6885-4123-a3d5-368a5e4b3e56-master.m3u8https://video.igem.org/videos/embed/dR78LMwv9apiwajFeNWNXK1880012025-11-06T19:06:03.533ZYES2025 Judging SessionsNOhttps://video.igem.org/w/az8LYR2yY8TRREhEz23ewKhttps://video.igem.org/lazy-static/thumbnails/90ec0cd6-f668-4695-a085-04a8732898ff.jpgCSU-CHINA: Judging SessionOur project addresses the lactate-rich tumor microenvironment by engineering a lactate-responsive module that enables immune cells(e.g., CAR-T cells in Car-T therapy) to secrete lactate oxidase (sLOx) and reduce excess lactate. To build this module, a lactate sensing protein is split to two fragments, which are fused to the N-terminal and C-terminal fragments of TEV-protease, respectively. High lactate induces TEV-protease reconstitution, which then cleaves a GV-2ER fusion protein to release the transcription factor GV (Gal4-VP64). GV enters the nucleus and activates sLOx expression, lowering lactate concentration and enhancing immune cell anti-tumor efficacy.https://static.igem.org/peertube/streaming-playlists/hls/4d82958d-0ed6-45df-a0b4-966b804c1e4b/ac0ae392-611a-4daf-9630-01eedb2ef1b9-master.m3u8https://video.igem.org/videos/embed/az8LYR2yY8TRREhEz23ewK1745082025-11-06T19:13:56.706ZYES2025 Judging SessionsNOhttps://video.igem.org/w/dr5fVHoTsZ8qpzDBNp2ZJthttps://video.igem.org/lazy-static/thumbnails/604bc186-2b0d-4369-a60d-a1dc6e49d387.jpgPuiChing-Macau: Judging SessionRecently, more and more cultural heritage sites used microorganisms for biocleaning and protection. Our project leverages synthetic biology to develop a sustainable solution to protect heritage sites from environmental deterioration. Our project comprises two parts. Firstly, we addressed acid erosion by engineering sulphur reduction pathways. We engineered E. coli to reduce sulfate and sulfite to cysteine. We utilised two genes, YdeD, which exports cysteine out of bacterial cells, and YhaM, which degrades cysteine, to drive the reduction pathway. Secondly, we employed silicatein-expressed E. coli to catalyse the formation of biosilica from tetraethyl orthosilicate. This biosilica could fill cracks in structures and improve structural integrity. We also adopted csgA adhesion domain, which ensures our engineered E. coli adheres to building surfaces under acidic conditions. Together with our hardware for crack-repairing and models to estimate corrosion, we believe our project can bring new insights for future heritage protection projects utilising synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/64ade1c1-1c45-4e95-bf2c-3712fdadbe3b/e0caa72a-98cc-4fbf-afdf-5cabf0457c26-master.m3u8https://video.igem.org/videos/embed/dr5fVHoTsZ8qpzDBNp2ZJt1203052025-11-06T20:22:46.665ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4wwm6PHZqVGTPZR74PGcgVhttps://video.igem.org/lazy-static/thumbnails/2d997f64-8edf-4082-a570-1e9af713e6ba.jpgBJWZ-China: Judging SessionPer- and polyfluoroalkyl substances (PFAS), recognized as "persistent chemicals", exhibit remarkable environmental recalcitrance and widespread distribution in potable water and soil matrices. These compounds pose substantial risks to both human health and ecological equilibrium. Conventional detection methodologies rely on sophisticated instrumental platforms (e.g., liquid chromatography-mass spectrometry, LC-MS), whereas degradation protocols necessitate harsh conditions (e.g., high temperature and pressure), limiting their feasibility for low-cost implementation. Here, we constructed a synthetic biological system in E. coli BL21(DE3) chassis, comprising a PFAS-specific dehalogenation module, a fluoride ion-selective transport apparatus, and a dual-fluorescent reporting system (GFP/mCherry) for integrated real-time visual detection and degradation of PFAS. Furthermore, biosafety is ensured by an arabinose-inducible regulatory circuit controlling the ccdB toxin gene to prevent engineered bacterial dissemination. This approach presents a promising strategy for in-situ bioremediation of PFAS-contaminated wastewater, enabling simultaneous detection and detoxification of these persistent pollutants. https://static.igem.org/peertube/streaming-playlists/hls/1c8e6e49-a35c-43ef-82e9-179aabd3d437/7d81e9f3-9744-49b8-b87d-716a28766342-master.m3u8https://video.igem.org/videos/embed/4wwm6PHZqVGTPZR74PGcgV1482002025-11-06T20:27:41.622ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7G5mH9RwaX2d5zCV2MWJqQhttps://video.igem.org/lazy-static/thumbnails/0668877b-1ac9-423f-8004-4ed4cdf4eb25.jpgCSW-UD: Judging SessionMarine oil spills pose recurring threats to ocean ecosystems. Alcanivorax borkumensis, a halophic, hydrocarbonoclastic bacterium evolved to thrive around oil-contaminated environments, is promising for bioremediation. Its concentration increases naturally after oil spills, efficiently degrading alkanes, utilizing specialized enzymes including alkane monooxygenases, cytochrome P450s, and biosurfactant-producing pathways. We explored A. borkumensis's biofilm formation and alkane oxygenation, identifying its overall better performance over champion isolates. Through a proteomic study, we identified secreted proteins in alkane degradation's first steps, testing their degradation abilities through a biochemical NPD-hydrazine assay. We deem the flavin-binding monooxygenase AlmA promising in alkane degradation. We also focused on creating a genetic toolbox for A. borkumensis, studying conjugation and broad-host range plasmid transformation. The findings indicate the enzymes responsible for the degradation's first steps, setting the foundation to create more complex genetic toolboxes. Future implementation, more efficient oil spill cleanup, has potential to save marine life and protect coastal industries.https://static.igem.org/peertube/streaming-playlists/hls/362f4494-b4b8-490f-a672-620c48c509a8/3056c17b-d82c-4945-acb1-08c5d9fa0822-master.m3u8https://video.igem.org/videos/embed/7G5mH9RwaX2d5zCV2MWJqQ1284032025-11-06T20:27:44.411ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rdroY2rrCt1wGJwnwjmVYmhttps://video.igem.org/lazy-static/thumbnails/846ef635-22c2-4c98-8772-3803b6566ba2.jpgLYON: Judging SessionForever chemicals, or PFAS, are synthetic compounds composed of carbon–fluorine bonds that are nearly impossible to break down. First produced in the 1940s for their exceptional stability and resistance, they are now ubiquitous—in cookware, textiles, and firefighting foams—leading to their accumulation in the environment and human bodies. Long-term exposure has been linked to cancer, hormonal disruption, and immune dysfunction. Yet, no scalable, low-energy solutions currently exist for PFAS degradation. FluoroBreaker aims to address this challenge through two complementary strategies targeting PFOA and TFA. First, we used an AI-assisted bioinformatics docking approach to identify key mutations in a dehalogenase enzyme to enhance TFA degradation. Second, we engineered reporter bacteria carrying a promoter responsive to PFOA, enabling fast, user-friendly detection of PFAS in water. Together, these innovations pave the way for a sustainable, biotechnology-driven response to the PFAS pollution crisis.https://static.igem.org/peertube/streaming-playlists/hls/cc310ae5-2525-4716-a546-dd5d3f0f8478/051aa297-6117-4de0-bc3f-cb25e92b120f-master.m3u8https://video.igem.org/videos/embed/rdroY2rrCt1wGJwnwjmVYm14710162025-11-06T20:27:48.890ZYES2025 Judging SessionsNOhttps://video.igem.org/w/b4Noi53Lt3WZGo2p252yemhttps://video.igem.org/lazy-static/thumbnails/14f38471-9714-422b-be7f-2960ca47af4b.jpgRUM-UPRM: Judging SessionThe island municipality of Puerto Rico, Vieques, remains contaminated from decades of military activity with the high-energy compound RDX (hexahydro-1,3,5-trinitroso-1,3, 5-triazine), posing severe risks to human health and local ecosystems. To address this issue, we engineered a genetic circuit in Escherichia coli for RDX biodegradation and biocontainment. The system integrates two modules: (1) a biodegradation module containing an RDX-inducible riboswitch that regulates xplA and xplB, encoding cytochrome P450 and its flavodoxin reductase responsible for degrading RDX into formaldehyde and nitrite, and (2) a killswitch module that detects these byproducts to trigger colicin-mediated cell lysis. The circuit will be implemented in a four-stage Serial Bioreactor System designed to promote bacterial growth, induce degradation, treat byproducts, and ensure safe environmental discharge. Our system provides a controlled and sustainable synthetic biology approach for mitigating RDX contamination and supporting environmental restoration in Vieques. https://static.igem.org/peertube/streaming-playlists/hls/5183340b-a2ee-4072-8b8b-713aadfb7fce/21ce55e2-8b82-4a61-971c-0254d8e60230-master.m3u8https://video.igem.org/videos/embed/b4Noi53Lt3WZGo2p252yem14990202025-11-06T20:27:50.362ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uHEyec5Ej4RHkR8TdGcCUBhttps://video.igem.org/lazy-static/thumbnails/d0e751c0-f504-41ad-836c-751a1add980f.jpgSPC: Judging SessionTo alleviate the problem of plastic pollution and mitigate the serious impacts made by plastic on our environment, our team worked on multiple DNA combinations to break down PET. Our solution is HotPETase, an enzyme that can degrade PET plastics readily at high temperatures. We have paired it up with the genes BaCBM2 and CsgA respectively, then combined all three genes together to form our final gene combination. Out of all gene constructs, HotPETase-BaCBM2 showed the best performance, having the greatest increase in absorbance and the largest decrease in mass of the PET fragment at 70°C. Our main target gene combination, CsgA-HotPETase-BaCBM2 showed promising results during the absorbance test, having the second highest increase in absorbance at 60°C. SEM imaging was conducted on the PET samples, with irregular cracks being observed on the PET surface, in contrast to the smooth surface of the control. https://static.igem.org/peertube/streaming-playlists/hls/e8912347-8aa6-46cb-9800-686b51af35f3/4e7dee93-6862-488b-ab0d-b10617e3dec9-master.m3u8https://video.igem.org/videos/embed/uHEyec5Ej4RHkR8TdGcCUB1628082025-11-06T20:28:00.181ZYES2025 Judging SessionsNOhttps://video.igem.org/w/wB5Xosp8kGyf5jTXCHU3pJhttps://video.igem.org/lazy-static/thumbnails/6cb74ece-ffbd-4150-adbd-046847e9c093.jpgToulouse-INSA-UT: Judging SessionPFAS, also known as “forever chemicals,” are man-made compounds found in countless everyday products. Their remarkable resistance to heat, grease, and water comes from exceptionally strong carbon–fluorine bonds. But this stability comes at a cost: PFAS do not break down. Contamination is now global, and calls for a solution. We introduce PFAway, a real-world PFAS degradation process relying on two bacterial strains immobilized in carbon-activated beads. A newly identified strain, Labrys portucalensis F11, is first used to degrade long-chain PFAS into short-chain PFAS. Pseudomonas putida KT2240 then defluorinates short-chain PFAS through an engineered dehalogenase obtained by hypermutagenesis in E. coli. Dehalogenase variants are screened based on a fluoride biosensing aptamer implemented in droplet microfluidics. Improved dehalogenases are finally expressed in a modified P. putida that is made resistant to fluoride ions through the overexpression of the fluoride transporter FluC. This end-to-end process paves the way towards industrial-scale PFAS decontamination.https://static.igem.org/peertube/streaming-playlists/hls/f7d83ecf-0ae0-4d9d-970b-34e356bc3318/8665db4c-8d5e-4bb7-a291-4f2d80b890bb-master.m3u8https://video.igem.org/videos/embed/wB5Xosp8kGyf5jTXCHU3pJ1521052025-11-06T20:28:02.674ZYES2025 Judging SessionsNOhttps://video.igem.org/w/7ZMn1qHorLyEAnx5U9thqKhttps://video.igem.org/lazy-static/thumbnails/76a9e700-5fe0-413b-82b2-b9af9667f2f6.jpgJGU-Mainz: Judging SessionCement production accounts for about 8% of global CO₂ emissions (Kajaste & Hurme, 2016), and demand is expected to rise (Castro-Alonso et al., 2019; Lanjewar et al., 2025). At Pyricon, we address this challenge by creating a sustainable, bio-based alternative to cement bricks. We engineer Bacillus subtilis to produce spider silk proteins that enhance microbially induced calcite precipitation by another bacterium, forming a durable biocement. Using a novel PCR-free DNA assembly strategy and codon harmonisation, we aim to efficiently express highly repetitive silk genes. Our approach not only enables eco-friendly construction materials but also advances synthetic biology by providing a robust method for assembling reptitive DNA sequences. Scaled adoption of Pyricon’s biocement could significantly cut embodied CO₂ in masonry and small-scale construction while extending material lifespan, offering a practical path toward a lower-carbon built environment.https://static.igem.org/peertube/streaming-playlists/hls/38a82eaa-f7ac-4829-bb2d-78672fb4e693/fe66c2b7-d0f8-44b5-b761-62df8f41ee7b-master.m3u8https://video.igem.org/videos/embed/7ZMn1qHorLyEAnx5U9thqK1556042025-11-06T20:28:04.247ZYES2025 Judging SessionsNOhttps://video.igem.org/w/c4eA4YsVprCFfFGdeLx5PWhttps://video.igem.org/lazy-static/thumbnails/0babadb6-7127-4fc6-a8da-968a04ee91dc.jpgVirginia: Judging SessionThe effects of climate change underscore the need to develop sustainable energy technology. Hydrogen (H2) based sustainable energy solutions decarbonize high-heat industrial processes and long-distance transport. However, current H2 production is land and water-intensive, and largely reliant on fossil fuels. Dark Fermentation (DF)—an anaerobic process where glucose is converted to H2—is a sustainable alternative that can be integrated into waste-to-energy (WTE) streams. Currently, DF cannot produce H2 in commercially viable quantities. Our device, “The Cysteinator”, solves this challenge by supplementing DF bioreactor feedstocks with precise concentrations of L-cysteine. L-cysteine lowers the oxidation-reduction potential in DF feedstocks, helping hydrogen-producing bacteria propagate and increasing hydrogenase function. Our device is accompanied by a multi-scale model that characterizes its behavior and informs its implementation in a variety of WTE streams. Our project includes thorough analyses on the Cysteinator’s impact on WTE streams, DF market viability, and the UN’s Sustainable Development Goals. https://static.igem.org/peertube/streaming-playlists/hls/5988214d-ed0a-4dd3-94cd-a12369257024/ceef9802-7b6d-4fc5-89cd-d306df517d40-master.m3u8https://video.igem.org/videos/embed/c4eA4YsVprCFfFGdeLx5PW1591032025-11-06T20:28:07.599ZYES2025 Judging SessionsNOhttps://video.igem.org/w/s2qA4mXCCiSuAjPuUXcTPshttps://video.igem.org/lazy-static/thumbnails/fb25075d-87c8-4b22-945e-0ffaac34b6fb.jpgHsinchuTaichung-TWN: Judging SessionBisphenol A (BPA) is an endocrine disruptor linked to developmental, metabolic, and reproductive risks in humans and wildlife. Lab analytics can quantify BPA accurately but are costly and inaccessible to most users. We present a low-cost detection toolkit that converts BPA binding into a visible reporter using a LexA-based yeast two-hybrid (Y2H) design. The estrogen receptor-α (ERα/ESR1) ligand-binding domain is fused to the LexA DNA-binding domain (pGilda) and the B42 activation domain (pB42AD); ligand-induced ERα dimerization juxtaposes BD and AD, activating yeast reporters. To boost sensitivity to BPA’s weak agonism, we engineered mutations in the ERα LBD (residues ~519–535) by splicing-by-overlap-extension PCR and cloned variants into pGILDA (bait) and pB42AD (prey). We will evaluate wild-type and mutant ESR1 by dose–response β-galactosidase assays with positive/negative controls and selectivity tests, as a foundation for future community kits.https://static.igem.org/peertube/streaming-playlists/hls/d2c08057-6a7c-4246-ab89-eaad243d4e14/a01aa3b8-cde0-4818-b2e7-db7ac4b660ce-master.m3u8https://video.igem.org/videos/embed/s2qA4mXCCiSuAjPuUXcTPs1505582025-11-06T20:28:09.691ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6YCLLgxvzDxjkrq4uNrT5Yhttps://video.igem.org/lazy-static/thumbnails/6cd3eba2-2b36-4f2c-85db-d890f5a54f7a.jpgBBS-Kuwait: Judging SessionKuwait’s extreme heat, scarce rainfall, and sandy soil composition contribute to rapid water loss and reduced agricultural productivity. To address this environmental challenge, this project proposes engineering Escherichia coli ATCC 25922 to enhance soil water retention through the controlled production of extracellular polymeric substances (EPS). By co-transforming the strain with plasmids pVanCC (Amp^R) and pAcu (Kan^R), the bacteria can be designed to express EPS under specific induction conditions, such as elevated temperatures. The produced EPS would act as a natural hydrogel, improving the soil’s ability to retain moisture and reduce evaporation in arid environments. When applied to Kuwaiti soil, the modified bacteria are expected to create a microenvironment that binds water and stabilizes soil particles. This theoretical approach highlights the potential of synthetic biology to provide a bio-based, sustainable solution for water conservation and agricultural resilience in Kuwait’s desert ecosystems.https://static.igem.org/peertube/streaming-playlists/hls/3066017e-5f79-4c2e-b47d-bb8e1ebb4954/07167798-c8bf-4a6c-ab77-e8191ec29bad-master.m3u8https://video.igem.org/videos/embed/6YCLLgxvzDxjkrq4uNrT5Y1529022025-11-06T20:28:11.983ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fNnEPRAt8WnU2NxSLDjqNhhttps://video.igem.org/lazy-static/thumbnails/eb21060f-36b8-495f-8814-c21f2bd7ff60.jpgCUG-China: Judging SessionFacing the dual challenges of greenhouse gas accumulation and renewable energy intermittency, electrochemical CO₂ reduction presents a promising solution by converting electrical energy into storable chemicals. The CUG-China 2025 project engineers the acidophilic bacterium Acidithiobacillus ferrooxidans – which naturally thrives in extreme acidic conditions (pH<2) – to create a novel electricity-driven carbon fixation platform. This engineered strain incorporates three key synthetic modules: enhanced extracellular electron uptake, efficient glycerol synthesis from fixed carbon, and optimized CO₂ fixation via the Calvin cycle. When integrated into a microbial electrochemical system, the platform achieves efficient CO₂ conversion while producing valuable chemicals, offering a sustainable approach to simultaneous carbon mitigation and energy storage.https://static.igem.org/peertube/streaming-playlists/hls/77d98247-53fc-4d70-87af-6be40debb57c/e539c9de-0c44-4746-bd5d-427dca9b2469-master.m3u8https://video.igem.org/videos/embed/fNnEPRAt8WnU2NxSLDjqNh1576022025-11-06T20:28:13.354ZYES2025 Judging SessionsNOhttps://video.igem.org/w/gqhrx9Lbm1DKgUwVww79Aghttps://video.igem.org/lazy-static/thumbnails/3df3e24a-2aa1-4a9a-877d-6e33d0e5f30a.jpgUAlberta: Judging SessionWildfires in Canada’s boreal forests are increasing in frequency and severity, creating landscapes that struggle to recover. Current wildfire suppression uses plain water or chemical foams that prioritize flame control but overlook ecological impacts. Class A foams, commonly used in wildland firefighting, are petrochemical-based, produced via non-sustainable processes, and harm soil and aquatic health. Ammonium-based retardants also disrupt seed germination and microbial communities, with potential nutrient runoff risks. AshBloom presents an eco-friendly alternative: a bio-based, biodegradable fire-suppressant foam made from microbial rhamnolipids via sustainable fermentation. This foam matches the performance of traditional products while enhancing post-fire soil function by promoting water infiltration, beneficial microbes, and seed germination. Being made from renewable feedstocks like waste cooking oil, it rapidly degrades without toxic residues. AshBloom supports both fire suppression and ecological restoration, offering a tool that helps landscapes regenerate sustainably and aids firefighters and forest managers in protecting ecosystems with nature-aligned technology. https://static.igem.org/peertube/streaming-playlists/hls/7cdd0fe3-e8d1-42bd-89c0-f8c37a6cf2b3/a5169faa-dc70-489a-ab24-668c43c08892-master.m3u8https://video.igem.org/videos/embed/gqhrx9Lbm1DKgUwVww79Ag1599062025-11-06T20:28:15.321ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uVZQuvZtWbU22BtafQB7dShttps://video.igem.org/lazy-static/thumbnails/f73d53a6-a1e4-49fa-98bf-272f44ff40df.jpgGuanghua-ShanghaiU: Judging SessionOur iGEM project addresses the critical challenge of Pseudomonas plecoglossicida-induced visceral white spot disease in large yellow croaker, which causes annual industry losses exceeding ¥600 million due to high mortality rates (70–80%), while traditional antibiotic therapies exacerbate drug resistance and ecological harm. We employ an integrated computational-experimental strategy to develop a novel live attenuated vaccine. Starting with the CLEF model, we screen effector proteins, then validate candidates using engineered E. coli BL21(DE3). These virulence factors serve as vaccine targets. We also use C. elegans for preliminary toxicity and protection studies. Mathematical modeling simulates immune responses and economic impact, linking predictions with practical efficacy. Our goal is to establish an efficient antigen screening system to accelerate novel aquaculture vaccine development, offering a sustainable strategy to reduce disease prevalence and enhance productivity.https://static.igem.org/peertube/streaming-playlists/hls/ea49f1ed-7eae-40a8-bf5b-3ffb5dca1bba/365baff5-7524-48a3-9143-3431c3d782e8-master.m3u8https://video.igem.org/videos/embed/uVZQuvZtWbU22BtafQB7dS1467022025-11-06T20:32:48.183ZYES2025 Judging SessionsNOhttps://video.igem.org/w/526FhntBfFs9wRuym317dNhttps://video.igem.org/lazy-static/thumbnails/0964f5d6-8e96-4851-a072-d790113c407b.jpgBiotech XJUH: Judging SessionPlastic mulching is widely applied to enhance crop yield, yet the accumulation of non-degradable polyethylene (PE) films has led to severe soil pollution and fertility loss. To address this challenge, our project engineered Streptomyces to express optimized alkane hydroxylase enzymes, accelerating the degradation of PE under agricultural conditions. Using AlphaFold2-based protein modeling, we predicted and refined enzyme structures to improve catalytic activity and stability. Moreover, we developed an environmental prediction model that recommends the most suitable mulch type according to local temperature and rainfall, promoting rational use of plastic films. In parallel, a field survey among farmers in Henan Province revealed that nearly half believed traditional PE films reduce yields, underscoring the urgency of biodegradable alternatives. By integrating synthetic biology, computational modeling, and social investigation, our project provides a comprehensive and sustainable solution to agricultural plastic pollution.https://static.igem.org/peertube/streaming-playlists/hls/208bcc12-8e36-46a8-a9b5-ed69b13d075e/da68787e-589f-4d76-b071-1cd5ec6a6ac9-master.m3u8https://video.igem.org/videos/embed/526FhntBfFs9wRuym317dN1498032025-11-06T20:32:50.801ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cKtckcpZUBHfYb4F9wMxF9https://video.igem.org/lazy-static/thumbnails/48dff012-83b1-4814-9823-5bc356383832.jpgSCU-China: Judging SessionAlthough engineered bacteria hold great potential for wastewater remediation, their practical application is constrained by operational challenges such as easy washout, poor stability, and low cell density. To overcome these limitations, we developed TasAnchor, a whole-cell immobilization platform built on the chassis of Bacillus subtilis. By repurposing the endogenous biofilm protein TasA as a genetically engineered molecular anchor, TasAnchor dramatically enhances cellular adhesion and biofilm formation capacity of the engineered host on surfaces such as polystyrene filters.We further engineered TasAnchor into a multifunctional cadmium-management platform capable of the simultaneous monitoring, adsorption, and recovery of Cd²⁺ ions in real-time. For biocontainment, a quorum sensing-activated suicide circuit was integrated to trigger cell death upon accidental release. Central to its design is modularity, allowing for the exchange of adhesive proteins to facilitate flexible adaptation to diverse remediation scenarios, thereby underscoring the platform's versatility and broad application potential. https://static.igem.org/peertube/streaming-playlists/hls/5f264461-2005-43e2-9d44-95b4433f2b62/825aa5bf-69f8-445c-8060-3f051bd28a69-master.m3u8https://video.igem.org/videos/embed/cKtckcpZUBHfYb4F9wMxF914890152025-11-06T20:32:56.286ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pbnxK6FFA1bAfELuZZuKGVhttps://video.igem.org/lazy-static/thumbnails/6bcaa69d-aa09-456d-804f-8a4c551085f6.jpgMBG-DUTh: Judging SessionChitinator et al. transforms seafood waste into growth. Chitin, the tough biopolymer found in shrimp and crab shells, is often discarded despite its vast potential. Our team engineered a powerful dual-enzyme fusion combining Endochitinase and Exochitinase through a flexible linker, enabling synergistic and continuous chitin degradation into chitooligosaccharides (COS),bioactive molecules that stimulate plant growth and immunity. Expressed in E. coli and optimized for secretion in Bacillus subtilis, our construct lays the foundation for a living bioconversion platform that upcycles chitin waste into a natural bioactivator. Applied to garlic crops, this eco-friendly solution helps combat fungal pathogens like Fusarium oxysporum and Sclerotium cepivorum, promoting sustainable yield and soil regeneration. Through synthetic biology, Chitinator et al. turns what nature discards into what agriculture needs most resilience, protection, and life. https://static.igem.org/peertube/streaming-playlists/hls/bbb4e7e7-34ac-4a0d-a0c8-89e4a285fae1/acff463f-ac7b-49a6-918a-b82b8441c06a-master.m3u8https://video.igem.org/videos/embed/pbnxK6FFA1bAfELuZZuKGV17560142025-11-06T20:32:58.681ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4YgZ9Gjgv7XPCKMkbXB65mhttps://video.igem.org/lazy-static/thumbnails/814d957e-cffb-40aa-afd4-634089c86a36.jpgZJUT-China: Judging SessionMicroplastic pollution has emerged as a significant global environmental issue. Preliminary research conducted by the HP group indicates that the public is increasingly concerned about its widespread distribution, hidden forms, and potential for ingestion. In response to elevated concentrations of microplastics, such as polyethylene terephthalate (PET), in the environment, this study utilizes synthetic biology techniques to develop various biological modules for detection and degradation. To ensure biosafety, we designed a "OR" gate lysis module that facilitates the self-lysis of microorganisms. This research aims to provide systematic solutions for the precise detection and sustainable management of microplastics, thereby contributing to bioremediation strategies.https://static.igem.org/peertube/streaming-playlists/hls/2026eb1d-6e53-43fe-ada2-12c00c4bb318/22cc0ac8-04f9-40bd-a05a-248c80b41dbc-master.m3u8https://video.igem.org/videos/embed/4YgZ9Gjgv7XPCKMkbXB65m1534012025-11-06T20:33:01.849ZYES2025 Judging SessionsNOhttps://video.igem.org/w/m1USv96FC6GJrDySosb2Nwhttps://video.igem.org/lazy-static/thumbnails/229bdd3e-1fa0-4343-9c00-59ed5576527a.jpgUZurich: Judging SessionSexually transmitted infections (STIs) remain a growing global health challenge. Despite being treatable when detected early, testing rates are low due to asymptomatic cases, limited awareness, high costs, and inconvenient diagnostics. TRACE reimagines STI testing through synthetic biology by developing a cell-free, paper-based self-test that works without laboratories or trained personnel, enabling frequent use in low-resource settings. By uniting accessibility, sensitivity, and ease of use, TRACE empowers individuals to test frequently, reduce transmission, and improve global sexual health. The system combines rapid, room-temperature nucleic acid amplification via recombinase polymerase amplification (RPA) with a specific colorimetric readout. Both CRISPR-Cas and a novel DNA hybridization-based detection approach were evaluated to optimize cost, durability, and specificity. Extensive human practices research guided design and implementation, incorporating feedback from users, healthcare providers, and stakeholders. Through modeling, stakeholder consultation, and market analysis, we ensure real-world feasibility. https://static.igem.org/peertube/streaming-playlists/hls/a2175b1f-3f57-4ed1-bf7d-919992073c1e/15c08953-f352-4857-9e4e-dd6f758cf0f8-master.m3u8https://video.igem.org/videos/embed/m1USv96FC6GJrDySosb2Nw1605052025-11-06T20:33:04.689ZYES2025 Judging SessionsNOhttps://video.igem.org/w/eseRSJVjmZUCfo94KGcZ6Bhttps://video.igem.org/lazy-static/thumbnails/06f70cb0-96d2-41dc-add5-8bcae76f86fd.jpgRed Flags & Gene Tags: DNA Screening GamesThink you can spot a bad actor ordering dangerous DNA? In this interactive workshop, you'll play two games that expose the real challenge of DNA synthesis screening. In the Order Screening Game, review orders based on real synthesis history, and decide who gets their genes and who gets flagged. In Red Light, Green Light, you'll put your heads together to think about what sequence features are signs of engineering... including by AI. Your ideas will inform actual screening standards. Prizes for the winning teams.https://static.igem.org/peertube/streaming-playlists/hls/6cf0ae9c-5c6c-4682-9193-e5530d124321/1f957d93-b939-4b32-8fc3-aacc72cfca25-master.m3u8https://video.igem.org/videos/embed/eseRSJVjmZUCfo94KGcZ6B2797022025-11-06T20:47:44.604ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/bzCRjWnmdPPwBxWJc31TCkhttps://video.igem.org/lazy-static/thumbnails/1cf22b34-ac23-4e21-a7a7-e9c9c81a105e.jpgLong-Term Investments in BioBiotech breakthroughs rarely follow quarterly timelines. Building companies, infrastructure, and markets in biology requires patient capital and long-term vision. Yet today’s funding environment often favors short-term returns, creating tension between the pace of science and the expectations of investors. This panel will explore what it takes to invest for the long game in bio: from funding models that support long development cycles, to strategies for de-risking at each stage, to the role of partnerships between venture capital, corporates, and public institutions. This conversation will surface lessons on how long-term investment strategies can unlock the full potential of biotechnology - building not just companies, but resilient bio-based industries and economies.https://static.igem.org/peertube/streaming-playlists/hls/55ada412-bce0-404d-9cc3-23acb31838e7/be455c27-a4c2-425d-a4a6-7df3f238778f-master.m3u8https://video.igem.org/videos/embed/bzCRjWnmdPPwBxWJc31TCk1832012025-11-06T20:48:13.933ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/88ThAuHUVLLy81fuEXHnVChttps://video.igem.org/lazy-static/thumbnails/1b426d3f-7678-4e36-9d99-4f56d3ea31c3.jpg24/7 Discovery: Visions for the Lab of the FutureAs biology becomes increasingly automated and digital, the lab of the future is shifting from a physical space with fixed hours to a high-throughput, continuous engine for discovery. For companies, this transformation raises urgent questions: What skills will tomorrow’s teams need, how should collaboration be organized, and which technologies will scale reliably? This session brings together pioneers at the intersection of biology, engineering, and software, to discuss how organizations can harness both flexible tools and enterprise-scale platforms to drive productivity. Panelists will address challenges like the lack of standardization across instruments, or how to build infrastructure that scales without sacrificing flexibility. With biologists increasingly writing code and automating their own experiments, this panel will share practical lessons and a forward-looking vision from leaders in lab automation. Items to be addressed: How labs are making the transition, what barriers are still slowing progress, and what the implications are for the future competitiveness of biotech.https://static.igem.org/peertube/streaming-playlists/hls/39c9c87f-ee74-4cde-9a01-8741a756ecb2/2066599e-1b47-45e8-ba46-fdd4f76db603-master.m3u8https://video.igem.org/videos/embed/88ThAuHUVLLy81fuEXHnVC2344002025-11-06T20:48:14.511ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/74BAGn5DNRySAGoMk3c88Phttps://video.igem.org/lazy-static/thumbnails/310faa68-edd7-44ce-bf70-5c39aeb64229.jpgFrom Asilomar to iGEM: Advancing Human Practices for the Future of BiotechnologyThe future of biotechnology depends on the responsible choices of today’s innovators. The 1975 Asilomar Conference was a landmark moment in which the scientific community collectively assumed responsibility for the ethical and safe conduct of their work, setting a precedent that continues to guide research today. Building on this legacy, iGEM’s Human Practices program encourages synthetic biologists to develop technologies responsibly. This workshop will foster dialogue on the future of Human Practices and explore how the next generation can shape a trustworthy and responsible life sciences.https://static.igem.org/peertube/streaming-playlists/hls/3118005e-9b3e-4910-b10c-c337182a46b9/2168bba3-7018-46dc-92ad-4256915fc681-master.m3u8https://video.igem.org/videos/embed/74BAGn5DNRySAGoMk3c88P2929002025-11-06T20:52:47.529ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/korkarAAMBNbDMZryNiJTFhttps://video.igem.org/lazy-static/thumbnails/89669b6c-b9d9-46c7-82e3-5afc405d98c9.jpgAI Resilience Lessons from Red Teaming to Risk IndexingIs our biosecurity keeping pace with AI? This panel presents two major new studies: the first public red-teaming of DNA synthesis screening using AI protein design and a global index ranking AI-bio tool risk from "green" to "critical". We'll discuss where current defenses work (and where they fail) and how to build an resilient future for synthetic biology and biosecurity as AI progress accelerates.https://static.igem.org/peertube/streaming-playlists/hls/9cff9b9e-9ce9-4d16-b295-03a2553ca6e5/a5b72dd4-0f04-4cb5-ba64-e57d90029ef6-master.m3u8https://video.igem.org/videos/embed/korkarAAMBNbDMZryNiJTF3166002025-11-06T20:52:48.709ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/wVZkEfZpoeH4JX3gzNE6JDhttps://video.igem.org/lazy-static/thumbnails/cf3ffbb3-84d4-4f6f-bbbe-9227fc22c987.jpgSynthetic Biology Industry 2040Synthetic biology is moving from promise to practice, with applications spreading across healthcare, consumer goods and industrial biotechnology. Yet, the industry’s trajectory remains uneven: While some ventures are scaling rapidly, others still face major hurdles in funding, regulation and adoption. This panel will share visions for the Synthetic Biology Industry in 2040, exploring both the opportunities and the potential bottlenecks. Perspectives will include those of technology enablers pushing the boundaries with AI, drug developers applying synbio in discovery and therapeutics, and global adopters integrating new technologies into everyday products. The discussion will focus on what’s driving momentum, where challenges persist, and what it will take for synthetic biology to mature into a resilient, global industry with impact.https://static.igem.org/peertube/streaming-playlists/hls/fa7bea7e-e4c4-40be-8c32-1dec2ac0c18d/6542bece-f5ee-4a84-8f94-77f76d1f3a36-master.m3u8https://video.igem.org/videos/embed/wVZkEfZpoeH4JX3gzNE6JD2435092025-11-06T20:52:49.085ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/neJSH8FJQsZTcNHbvZiyR1https://video.igem.org/lazy-static/thumbnails/1e89ba15-955a-49e8-b9df-8b18da2e8b0f.jpgBuilding Ecosystems for BioInnovationNo organization can innovate in isolation. Successful bioinnovation depends on thriving ecosystems that connect startups, corporates, investors, academia and policymakers. This session explores how to design and grow these ecosystems so they enable discovery, scale and societal impact. The panel will discuss the essential ingredients: From collaborative networks that connect scientists and entrepreneurs, to capital and infrastructure that help startups grow, to partnerships that bring together government, industry and the public. With perspectives from leading international ecosystem builders, this conversation will uncover how to create environments where ideas can move from breakthrough science to real-world solutions.https://static.igem.org/peertube/streaming-playlists/hls/abfb00ca-be51-45cc-ae68-dc06156714f2/266b0500-d6b1-4455-ac73-28dc77024b8e-master.m3u8https://video.igem.org/videos/embed/neJSH8FJQsZTcNHbvZiyR13533032025-11-06T20:52:49.175ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/rgwvffvmEgWo4sNHhScoHUhttps://video.igem.org/lazy-static/thumbnails/8038768d-d767-4261-9a91-539baf2e9dbd.jpgSuccessful Policy & Regulatory Frameworks for BioInnovationBiotech innovation is outpacing the rules designed to govern it. As advances in synthetic biology, AI-driven drug discovery, and gene editing accelerate, regulators, industries, and societies must balance innovation with safety, equity, and public trust. The challenges are growing: Supply chain disruptions, biosecurity threats, and ethical concerns require immediate, coordinated solutions. Yet, innovators face very different regulatory and policy environments around the world. Some environments are supportive, others unclear or restrictive. Initiatives like the EU Biotech Act and the U.S. National Biotechnology and Biomanufacturing Strategy are reshaping the global landscape, but the need to align science, policy, and public trust is more urgent now than ever. This session will ask: How can we create flexible, inclusive frameworks that keep up with scientific progress while protecting the public interest? The discussion will focus on the biggest regulatory gaps, the potential of new approaches like sandboxes and international cooperation, and the practical steps needed to build a trusted, global bioeconomy. In this panel, various experts will share insights on how to work together to build future-ready solutions that support a global bioeconomy.https://static.igem.org/peertube/streaming-playlists/hls/cc9f6c05-1eec-445b-884e-d91239a954ae/19775e18-c846-4b4c-b725-5d3606f3a1ba-master.m3u8https://video.igem.org/videos/embed/rgwvffvmEgWo4sNHhScoHU3376022025-11-06T20:53:39.689ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/tXJKJ3nPpVxTqRfiPViCa7https://video.igem.org/lazy-static/thumbnails/f050ec5f-14e7-4c03-98b6-288740157469.jpgSynthetic Biology x AI Convergence and the Case for Global GovernanceThe convergence of synthetic biology with artificial intelligence and automation is creating tools like AI-enhanced biodesign and molecular structure prediction models that are accelerating the pace and complexity of innovation. At the same time, these technologies remain dual use, and with them come risks to be anticipated, understood and mitigated : from potential biosecurity implications of lowered barriers to entry to the future role of humans in automated systems. This panel will unpack and illustrate these opportunities and challenges with concrete examples from the lab, industry and policy from a broad range of sectors. The discussion will deep dive on the current global governance ecosystem for this converging space to identify gaps and how they could be addressed by international governance efforts, including those led by international organisations like the OECD.https://static.igem.org/peertube/streaming-playlists/hls/e26effca-69cc-4f14-9459-bc538570b6b8/3a63f40b-1b30-40bd-a1dd-a7ea962719e9-master.m3u8https://video.igem.org/videos/embed/tXJKJ3nPpVxTqRfiPViCa74563062025-11-06T20:57:45.648ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/14qUVedbRGbidbbdSXowyRhttps://video.igem.org/lazy-static/thumbnails/298d3497-b1ca-4ec9-a559-8b0907b115c5.jpgStrategies for Community Engagement on Mirror LifeThis interactive workshop explores mirror life—synthetic organisms built from reversed molecular building blocks—through the lens of responsible innovation and public engagement. We'll begin with technical level-setting on mirror life’s science and associated risks, followed by collaborative discussions on broadening stakeholder engagement within and beyond the synthetic biology community. Participants will explore effective communication strategies, identify key audiences for outreach, and develop approaches for inclusive dialogue on this emerging technology.https://static.igem.org/peertube/streaming-playlists/hls/007a9587-fd0d-4f41-9cb6-b33092b842c9/86e019f0-a445-4c55-aac6-89d6ee5b1489-master.m3u8https://video.igem.org/videos/embed/14qUVedbRGbidbbdSXowyR44650192025-11-06T20:57:45.751ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/viG5uPYR8tgipvXnwR5ErHhttps://video.igem.org/lazy-static/thumbnails/63964905-b533-498f-8e56-a35b362b3bc0.jpgFrom Participation to Impact - How Next Gen Leaders Are Shaping the Future of Safe and Secure Syn...The 100 Days Mission (100DM) aims to develop vaccines within 100 days of detecting new biological threats to minimize pandemic impacts, leveraging emerging technologies like AI, mRNA platforms, genomic sequencing, and synthetic biology. While these technologies enable rapid vaccine development, they also present significant risks including dual-use concerns and biological misuse, particularly with the rapidly evolving field of synthetic biology. Following the momentum from the 2025 Biosecurity Emerging Leaders Declaration launched at the Munich Security Conference, which established an action-oriented roadmap for global biosecurity based on equity, responsibility, and innovation, a proposed panel will convene six early- to mid-career biosecurity leaders to share experiences and provide actionable strategies for integrating safety, security, and equity into synthetic biology development and governance, ensuring the 100DM is achieved in a responsible manner.https://static.igem.org/peertube/streaming-playlists/hls/ed515d27-c532-4bc1-af73-b0137670ce5b/a69a152a-c36d-43ea-967b-3325d8bc3601-master.m3u8https://video.igem.org/videos/embed/viG5uPYR8tgipvXnwR5ErH5162052025-11-08T17:01:13.881ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/aFHAz4fzS6jwjktu2Q2jcAhttps://video.igem.org/lazy-static/thumbnails/d0837201-5719-4222-a99c-0f3a5e8044e6.jpgGovernance of Synthetic Biology in the Global SouthSynthetic biology represents a transformative frontier in science with profound implications for health, agriculture, environmental sustainability, and economic development worldwide. However, the governance landscape for this emerging technology remains dominated by institutions, frameworks, and ethical perspectives originating from the Global North, creating a critical gap in representation and potentially perpetuating global inequalities. This session challenges the prevailing governance paradigm by centering Global South perspectives and exploring "Global Solidarity" as both a normative principle and practical framework for inclusive synthetic biology governance. We will examine how current governance structures may inadvertently exclude or marginalize Global South voices, and explore pathways toward more equitable participation in shaping the future of this technology. By convening diverse stakeholders—including policymakers, bioethicists,scientists, civil society actors, and youth leaders—we seek to articulate a context- sensitive vision of solidarity that responds to the specific challenges, ethical paradigms, and opportunities encountered across the Global South.https://static.igem.org/peertube/streaming-playlists/hls/4e6de3b2-17ce-43e6-9e63-8999c8e51b70/a8a303f9-5123-4034-9d18-75a5c7964163-master.m3u8https://video.igem.org/videos/embed/aFHAz4fzS6jwjktu2Q2jcA4869062025-11-06T21:02:45.649ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/mnrzCwvyZNrr7is9b37PRNhttps://video.igem.org/lazy-static/thumbnails/84167fab-d002-4774-af3b-eaa0f03f2d32.jpgCalling for a New Odyssey of Global Science DialogueThis panel responds to two timely and intersecting shifts in the landscape of science communication and public engagement (PE). First, there is a generational turn in how emerging science—particularly synthetic biology—is viewed, with growing recognition of its potential to address global challenges. Yet, public and policy dialogues remain disproportionately focused on risk, often at the expense of possibility and imagination. A more balanced and creative approach is urgently needed. Second, UNESCO’s renewed emphasis on global science literacy as a foundational pathway to achieving the Sustainable Development Goals (SDGs) calls for a rethinking of how science is communicated and shared across borders. This includes decolonising methods of public engagement, addressing epistemic injustice, and enabling transnational forms of understanding and cooperation. These goals are not only central to inclusive science communication but are also deeply aligned with science diplomacy efforts. The session introduces the O.D.E.SS.I. initiative—an ‘odyssey’ for public engagement in the life sciences grounded in principles of Openness, Deliberation, Enabling, Sensibility and Sensitivity, and Innovation. The panel will feature a series of 7-minute lightning talks from contributors working in South Asia, Kenya, the UK, and Italy. Each speaker will highlight how O.D.E.SS.I.-related principles are being explored or adapted in their regional contexts—from participatory science outreach to new communication priorities and cooperative models of science governance. Together, the session offers a forward-looking discussion on how public engagement can evolve to better serve global publics, foster epistemic inclusivity, and strengthen transnational collaboration in science and society.https://static.igem.org/peertube/streaming-playlists/hls/a4f52810-208f-43f6-a701-c4012211c034/8e02a543-6fb8-47bf-bd05-6af2890da53a-master.m3u8https://video.igem.org/videos/embed/mnrzCwvyZNrr7is9b37PRN5046012025-11-06T21:12:45.223ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/ndEEmqZHpWAMM2dEc4ZGVWhttps://video.igem.org/lazy-static/thumbnails/324ca3fd-aec6-41e5-b6bf-4d1e119f2f79.jpgShanghai-Explore: Judging SessionTo address the severe harm of exogenous bacterial plant diseases and the issues of drug resistance and pollution associated with traditional chemical control, this project has transformed Escherichia coli (E. coli) into a "cell factory" using synthetic biology. It introduces the PtsG, FabH, and GlnA genes (regulated by T7 promoters and RBS) to construct a synthetic pathway that converts glucose to acetyl-CoA, then to erucic acid, and finally to erucamide. Meanwhile, we developed ErucaBead, which uses high-alcoholysis water-soluble polyvinyl alcohol (PVA) to encapsulate the engineered bacteria and boasts advantages such as rapid dissolution, degradability, and soil improvement.https://static.igem.org/peertube/streaming-playlists/hls/abd4a9b6-5fc4-47ad-aa64-c8f76c5f8450/b170469b-4139-4848-b9a6-5581b710cb99-master.m3u8https://video.igem.org/videos/embed/ndEEmqZHpWAMM2dEc4ZGVW1290042025-11-07T07:39:11.721ZYES2025 Judging SessionsNOhttps://video.igem.org/w/qoCFHJYeioFXZxbnvtpW8Chttps://video.igem.org/lazy-static/thumbnails/1e605dee-ecee-4e02-aafd-ae97bb2a5230.jpgBioplus-China: Judging SessionThe textile dyeing industry relies heavily on synthetic dyes, which generate toxic effluents and pose serious environmental and health risks. While bio-enzymatic dyes represent a sustainable alternative, their industrial use has been limited by unstable color output and narrow chromatic range. Inspired by the ecological tradition of Xiangyunsha silk dyeing, we developed an innovative biocatalytic platform based on a engineered fusion of tyrosinase and a self-assembling scaffold protein. This system forms reusable enzymatic “nanofactories” that convert tyrosine derivatives into non-toxic, melanin-inspired pigments, yielding a broad spectrum of colors from browns to reds. The immobilized enzyme demonstrates excellent operational stability over multiple cycles, drastically cutting water consumption and eliminating the need for heavy metal mordants. By merging synthetic biology with green chemistry, EnzColor offers a scalable, eco-friendly, and ethical pathway toward a circular textile economy.https://static.igem.org/peertube/streaming-playlists/hls/c5844c71-5834-4b29-8146-7b059d929dfa/0d94d6ad-efcd-489c-805f-7798dbac0001-master.m3u8https://video.igem.org/videos/embed/qoCFHJYeioFXZxbnvtpW8C1614012025-11-07T07:39:33.639ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6drBc1WxSD1831TJKzwUJ5https://video.igem.org/lazy-static/thumbnails/d35dc88b-f2de-4dbf-acb3-316412be58f9.jpgNCState: Judging SessionThe goal of our project is to develop a synthetic biology-based system for the detection and bioremediation of polychlorinated biphenyls (PCBs)—persistent organic pollutants that pose environmental and health risks. We are engineering Pseudomona putida to express genes from the bph (biphenyl degradation) pathway, enabling them to enzymatically break down PCB compounds into less toxic intermediates. To complement this, we are designing a biosensor circuit that uses synthetic aptamers—short nucleic acid sequences that specifically bind PCBs—to initiate a response via a CRISPR-Cas12a-based system. This dual-function system will allow our engineered organisms to both sense and respond to PCB contamination in a controlled, efficient, and field-deployable manner.https://static.igem.org/peertube/streaming-playlists/hls/2a3a6634-d5c8-4c11-b2e9-297b89485478/eaa4e2eb-7d50-41b6-8360-e98dcfa6e7ec-master.m3u8https://video.igem.org/videos/embed/6drBc1WxSD1831TJKzwUJ51515032025-11-07T07:39:23.768ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3cEocMG2L89dri3AM38e3phttps://video.igem.org/lazy-static/thumbnails/3f73251f-9968-4d5d-9df2-de126f2cdc51.jpgBostonU: Judging SessionThis project aims to advance women’s health by developing an at-home diagnostic tool for continuous monitoring of vaginal health, with a specific focus on bacterial vaginosis (BV), a condition impacting nearly one in three women. Current diagnostic methods provide only a single-timepoint assessment, failing to capture the dynamic fluctuations of the vaginal microbiome. To address this gap, we propose a longitudinal monitoring approach that enables daily sampling and trend analysis. Our prototype integrates two key sensing modalities: a biosensor that detects putrescine, a biological amine associated with BV, and an optical pH sensor that provides complementary information about overall vaginal health. By tracking these biomarkers over time, we aim to generate a data-driven and personalized model of vaginal health, offering users deeper insight into microbiome dynamics and earlier detection of vaginal dysbiosis.https://static.igem.org/peertube/streaming-playlists/hls/11d31cf0-2d89-4867-bf3c-e22bf1156e37/bfd87bd7-9cae-4eef-9407-e69a44e3bd29-master.m3u8https://video.igem.org/videos/embed/3cEocMG2L89dri3AM38e3p1497072025-11-07T07:39:17.338ZYES2025 Judging SessionsNOhttps://video.igem.org/w/iKQTsixdjRY2PFAyPF6iethttps://video.igem.org/lazy-static/thumbnails/ae157355-88be-47d0-9231-bd9b85acd4a4.jpgAix-Marseille: Judging SessionOsteoporosis, which affects hundreds of millions of people, requires safer treatments. To address the serious side effects and high cost of current options, we have engineered E. coli bacteria as a localized, in situ drug factory. Our system uses surface-displayed tyrosinase to continuously produce melanin, a powerful antioxidant that reduces inflammation and promotes bone regeneration at fracture sites. To ensure complete biological containment, the bacteria are encapsulated in a alginate hydrogel and are metabolically auxotrophic, making them dependent on the carrier. A toxin-antitoxin system also prevents plasmid loss and survival outside the niche. This work establishes a foundational platform for a new class of living medicines aimed at bone regeneration. By enabling localized, sustained, and controllable drug delivery, this paves the way for intelligent and sustainable solutions to a wide array of diseases. https://static.igem.org/peertube/streaming-playlists/hls/8fca7793-7217-474e-bbe1-f5185b128909/becd6e33-21ed-496a-bdde-26b132ebb43b-master.m3u8https://video.igem.org/videos/embed/iKQTsixdjRY2PFAyPF6iet1680062025-11-07T07:41:48.717ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sXYcvutzkhKk98kaDNqDfXhttps://video.igem.org/lazy-static/thumbnails/a051e7d2-81b8-4ef8-bdde-43a194e5e3f8.jpgLund: Judging SessionPolyethylene terephthalate (PET), the main component of polyester textiles, dominates global fiber production and generates millions of tons of waste annually. Current recycling methods rely on energy-intensive chemical processes. Our project, Trashformers, tackles this challenge by developing a synthetic biology system for PET textile recycling and upcycling, designed to provide all the reaction components needed for efficient depolymerization and upcycling. We focus on enzymatic glycolysis to depolymerize PET into bis(2-hydroxyethyl) terephthalate (BHET), a monomer suited for re-polymerization. To achieve this, we designed a system based on E. coli BL21(DE3) and devices utilizing PETase hydrolases. We design two complementary systems in parallel. The first employs enzymatic hydrolysis to degrade PET into terephthalic acid (TPA), and ethylene glycol required for subsequent glycolysis. The second uses rational enzyme design to create a novel enzyme that activates TPA with coenzyme A Paving the way for PET upcycling through metabolic and chemical valorization.https://static.igem.org/peertube/streaming-playlists/hls/da5e2561-6a79-4472-b85d-751ff8e9f117/726cda19-63ee-4848-9d29-49b87f3a1561-master.m3u8https://video.igem.org/videos/embed/sXYcvutzkhKk98kaDNqDfX1611072025-11-07T07:41:56.000ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6hz9kMDDha4YiDX7G2mBD2https://video.igem.org/lazy-static/thumbnails/12965b1f-c689-4d87-a4e3-1fcdab16e1d3.jpgQueens-Canada: Judging SessionPseudomonas aeruginosa biofilms drive chronic lung infections in cystic fibrosis (CF) by resisting antibiotics and immune clearance. Biofilm development is regulated by quorum sensing (QS) via acyl-homoserine lactones (AHLs), making QS an appealing therapeutic target. While AHL detection has been engineered in bacteria, its use in eukaryotic systems remains unexplored. We developed early-stage eukaryotic genetic circuits linking AHL sensing to gene expression using chimeric LasR and RhlR receptors. In silico docking (HADDOCK) guided variant selection based on ligand binding and dimerization stability. Complementary biofilm assays using AiiA lactonase, alginate lyase, and α-amylase demonstrated measureable inhibition of P. aeruginosa PAO1 biofilms. Together, these results lay the groundwork for AHL-responsive genetic circuits in mammalian cells, supporting future synthetic biology-based therapies where engineered immune cells could detect bacterial QS signals and secrete biofilm-degrading enzymes for targeted CF treatment.https://static.igem.org/peertube/streaming-playlists/hls/2ace04eb-a1d5-4d42-801c-9ed6122afb7f/4898873e-119f-4cd1-89d6-9810094e6cf7-master.m3u8https://video.igem.org/videos/embed/6hz9kMDDha4YiDX7G2mBD21520082025-11-07T07:41:44.097ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5tNALzGZRukCwR9gNctNythttps://video.igem.org/lazy-static/thumbnails/7e6e2bf9-5745-4675-b471-b2e4b03d000c.jpgNEFU-China: Judging SessionThe utilization of lignin in straw remains challenging. Direct incineration not only exacerbates the climate crisis but also constitutes a waste of resources. To address this issue, we have successfully converted lignin into paracetamol while preserving its benzene ring structure. This approach helps mitigate environmental problems caused by straw burning and offers a sustainable pathway for pharmaceutical production. In the future, this project is expected to pave the way for more high-value applications of lignin, enabling the green synthesis of valuable benzene-ring-containing products.https://static.igem.org/peertube/streaming-playlists/hls/24465ab7-cdcd-48e6-98fb-7da07a782f3b/2c1bf3b3-cdb6-4de7-a722-8b35037f1baa-master.m3u8https://video.igem.org/videos/embed/5tNALzGZRukCwR9gNctNyt1536072025-11-07T07:42:04.452ZYES2025 Judging SessionsNOhttps://video.igem.org/w/awXgubsUM2qhHvq4aJAEUNhttps://video.igem.org/lazy-static/thumbnails/65c73315-e50a-4838-9250-1b573fd5d492.jpgKhanLab-BayArea: Judging SessionMicroplastics are increasingly widespread. Jambeck et al. find that 5 to 12 million tons of plastic pollute the ocean annually. Plastics put into landfills degrade into microplastics that leach into the environment. These microplastics travel up the food chain, with the average person eating, drinking, or breathing between 78,000 and 211,000 microplastic particles every year. At the same time, the U.S. Geological Survey reports that 1 billion tons of limestone are quarried yearly in the United States alone. Our team addresses both of these issues by engineering E. coli to co-express plastic-binding curli fibers and a biomineralization pathway, effectively capturing microplastics in in situ limestone formations. We are using microbially induced calcite precipitation (MICP) for biomineralization, investigating a carbonic anhydrase pathway and a urease pathway. The resulting product of our engineered E. coli can immobilize microplastics while replacing non-renewable resources like sand for construction and backfilling projects. https://static.igem.org/peertube/streaming-playlists/hls/4d349edb-8a3b-41a3-a668-ef486b60e59e/99ffead7-ab41-481e-b673-a0fdd23a44ff-master.m3u8https://video.igem.org/videos/embed/awXgubsUM2qhHvq4aJAEUN1538082025-11-07T07:42:12.223ZYES2025 Judging SessionsNOhttps://video.igem.org/w/q2NJ9fBcPhgwmnKQLRaK5Khttps://video.igem.org/lazy-static/thumbnails/b83bab78-7a9d-4585-84fd-bea0437889be.jpgWageningenUR: Judging SessionAgriculture is changing fast, and farmers everywhere are feeling the heat. Every crop faces different issues, from abiotic stressors like drought to biotic stressors such as pests. Traditional breeding for resilience takes years; a quicker solution is needed. Seed coatings are commonly used for uniform seed size, germination, and delivery of active compounds, but they could reduce the severity of many more problems. Therefore, we developed a modular material without microplastics to create a platform for all seed coating applications. Desired properties can be selected before production, such as altered water holding capacity or biodegradability, but also added active components or proteins. During fermentation, the functionalised bacterial cellulose (BC) is made, which can be applied directly to seeds. This way, BCoated is creating a fast, farmer-friendly support for crops: Customizable bacterial cellulose (BC) coatings that protect seeds and boost resilience, tailored to meet the challenges of today’s and tomorrow's fields.https://static.igem.org/peertube/streaming-playlists/hls/c29bde2e-563d-44ae-8b54-368860001597/e4698706-3052-424e-8c07-f961152b37ea-master.m3u8https://video.igem.org/videos/embed/q2NJ9fBcPhgwmnKQLRaK5K1440082025-11-07T07:39:27.515ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1wQtntKYvmjQMmUxDriN7rhttps://video.igem.org/lazy-static/thumbnails/c475096d-8e4d-40e4-a110-33504f93e2a9.jpgUprize-I iGEM2025 Finalist |PAThogen-Resistant Organisms engineered for NatUral root rot ManagementiGEM 2025 Competition | High School - 1st Runner Up Learn more about the team: https://teams.igem.org/5937 All Competition Results Available on: https://competition.igem.org/results/2025 Finalist Presentation (Oct 31, 2025) - iGEM Grand Jamboree | Paris Convention Centre jamboree.igem.org Project Title: PATRONUM: PAThogen-Resistant Organisms engineered for NatUral root rot Management Project Abstract: Soybean root rot, a soil-borne disease primarily caused by Fusarium spp., poses a severe threat to China’s soybean industry—with annual yield losses exceeding 50,000 tons. Conventional controls are inadequate: agricultural measures are slow-acting, chemical pesticides carry risks of residues and pathogen resistance, and biocontrol exhibits weak efficacy. To address this gap, our approach employs two engineered strains: the chitinase-expressing strain degrades existing chitin, destroying mature pathogens; the β-amyrin-synthesizing strain blocks chitin synthesis by inhibiting chitin synthase, suppressing pathogen proliferation. Our team achieved key results: establishing an in-silico workflow to screen 2000 secretory peptides; verifying the chitin-degrading ability of chitinases; constructing and optimizing β-amyrin-producing strains; developing a biosafety screening tool and a measurement tool based on safer antifungal indicator strains; confirming antifungal effects of chitinases and β-amyrin. In the future, we will promote the large-scale application of this synthetic biology-driven strategy, further supporting long-term agricultural health and food security. https://static.igem.org/peertube/streaming-playlists/hls/044e2f5a-42b5-4f3b-a6fa-04b2f83a5b05/1878d8b7-a78d-480d-a700-b44101b4358c-master.m3u8https://video.igem.org/videos/embed/1wQtntKYvmjQMmUxDriN7r93702272025-11-09T22:22:35.787ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/wnZPEXNTWpjFUdbEvPYFQRhttps://video.igem.org/lazy-static/thumbnails/e7a0d8c1-35fe-43ff-9e54-6dc76cc9d8e1.jpgGreatBay-SCIE - iGEM 2025 Grand Prize Winner - ArMOLDgeddon, Safe and Efficient Mold EliminatoriGEM 2025 Competition | High School - Grand Prize Winner Learn more about the team: https://teams.igem.org/5614 All Competition Results Available on: https://competition.igem.org/results/2025 Finalist Presentation (Oct 31, 2025) - iGEM Grand Jamboree | Paris Convention Centre jamboree.igem.org Project Title: ArMOLDgeddon, Safe and Efficient Mold Eliminator Project Abstract: Accounting for up to 20% of all respiratory allergy cases in humid areas, reaching a pervalence of around 30% in many countries around the world, indoors mold problem comprises one of the most serious threat to public health. To tackle this risk, GreatBay-SCIE 2025 devised a brand new mold killer, ArMOLDgeddon. Harnessing the antifungal properties of enzymes chitinase, glucanase, lysozyme and monoterpenoid geraniol, ArMOLDgeddon provides a safe and effective alternative to current mold removers. Chitinase and glucanase degrade critical structural polymers of the mold cell wall, while lysozyme magnifies the damage through cationic interaction with the cell wall components and disruption of fungal membranes. Geraniol, apart from furthering the attack on fungal membrane, provides a pleasant fragrance. Furthermore, with the help of artificial intelligence and strong carbohydrate binding domains, ArMOLDgeddon evolves and improves, expediting towards the goal of the annihilation of mold-related diseases, and eradicating this pervasive global health threat. https://static.igem.org/peertube/streaming-playlists/hls/f60469ba-40d1-4034-acc3-edffb12803dd/52f8f043-10b6-4315-8631-2a32af344bb2-master.m3u8https://video.igem.org/videos/embed/wnZPEXNTWpjFUdbEvPYFQR942015582025-11-09T22:31:58.753ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/tpommXQHaDPSVYayV3icp5https://video.igem.org/lazy-static/thumbnails/79982ae2-0b0c-48b8-9cb6-2a959eea02d3.jpgHeidelberg - iGEM 2025 Finalist | Smart Synthetic Immune Cells for Precision OncologyiGEM 2025 Competition | Overgraduate - 1st Runner Up Learn more about the team: https://teams.igem.org/5775 All Competition Results Available on: https://competition.igem.org/results/2025 Finalist Presentation (Oct 31, 2025) - iGEM Grand Jamboree | Paris Convention Centre jamboree.igem.org Project Title: PHOENICS: Smart Synthetic Immune Cells for Precision Oncology Project Abstract: We present PHOENICS, a modular signaling platform that uses phosphorylation logic to enable programmable, ligand-specific cancer therapies. Combining synthetic GPCR and MESA receptors with kinase/phosphatase computation and tunable expression or secretion outputs, PHOENICS provides rapid, reversible, and retargetable control of therapeutic activity. Supported by the in silico optimization platform SPARC, it offers flexible adaptation to distinct tumor microenvironments and therapeutic effectors. Beyond the bench, we built an educational innovation ecosystem that equips future pioneers with the network and knowledge to navigate the challenges of translational research. Uniting innovation and education, PHOENICS drives modular precision oncology and empowers future translational innovators. https://static.igem.org/peertube/streaming-playlists/hls/ddea9ff6-c709-4048-a933-3cb227cb772e/0ef9f79d-eebd-43bd-b394-bad1558f483a-master.m3u8https://video.igem.org/videos/embed/tpommXQHaDPSVYayV3icp575552462025-11-09T22:35:30.086ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/hHE93UdsZu9h6o9tCtvQMFhttps://video.igem.org/lazy-static/thumbnails/c0357ce3-9f6d-42cf-a0b7-346ba489d860.jpgEPFL - iGEM 2025 Finalist - Pyronix - The Next Generation of FirefightingiGEM 2025 Competition | Undergraduate - 1st Runner Up Learn more about the team: https://teams.igem.org/5590 All Competition Results Available on: https://competition.igem.org/results/2025 Finalist Presentation (Oct 31, 2025) - iGEM Grand Jamboree | Paris Convention Centre jamboree.igem.org Project Title: Pyronix - The Next Generation of Firefighting Project Abstract: Wildfires present major global challenges, from CO2 emissions and ecosystem destruction to severe public health impacts. Current firefighting methods also carry significant drawbacks. Pyronix offers a new approach, harnessing synthetic biology to create a more sustainable solution. We engineered a hydrogel-based fire retardant assembled from components produced by microorganisms. The gel structure is composed of cellulose and chitosan. Silica nanoparticles and a fire-retardant protein are embedded in the gel to improve its fire resistance. To deploy the hydrogel, we developed an artificial intelligence equipped drone for safe and automated firefighting, supporting life-saving decisions made by the operators. We engineered yeast strains for enhanced chitosan production, bacterial cells building up silica nanoparticles, and expression systems to produce fire retardant proteins. We assembled the components into a gel-like structure to study its fire-retardant properties. Pyronix provides a solid foundation for developing sustainable firefighting methods from production to deployment.https://static.igem.org/peertube/streaming-playlists/hls/8763378d-1089-4fac-a686-8fd31d7c9791/a51e4d04-48a0-40ad-9ee4-00234af57e13-master.m3u8https://video.igem.org/videos/embed/hHE93UdsZu9h6o9tCtvQMF80903112025-11-09T22:42:10.599ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/6i9HFGUbdr36gzBXHkEbhghttps://video.igem.org/lazy-static/thumbnails/d6bba429-864a-4e0b-8589-67a489499335.jpgStartup Showcase - Finalist Pitches | iGEM 2025 Grand JamboreeiGEM 2025 Startup Showcase | Finalist Pitches Learn more about the iGEM Startups Program: https://startups.igem.org/ and the 2025 Startup Showcase: https://jamboree.igem.org/2025/program/bioinnovation-fair Oct 31, 2025 - iGEM Grand Jamboree | Paris Convention Centre - jamboree.igem.org 1st Place: Pomegranate Biomanufacturing 2nd Place: Synferra 3rd Place: Averrahttps://static.igem.org/peertube/streaming-playlists/hls/2ae2b5e1-fad3-462c-9254-e5b8cb649a17/abed696e-a8ec-4f18-a5dd-2ab24e042384-master.m3u8https://video.igem.org/videos/embed/6i9HFGUbdr36gzBXHkEbhg7270602025-11-09T23:03:59.333ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/5JjZmDbCbG79NfFP53hNsahttps://video.igem.org/lazy-static/thumbnails/b81cb814-7799-46aa-8cce-dff9f92c2c16.jpgIZJU-China - iGEM 2025 Finalist - Novel Atimicrobial-Resistance Treatment & Infectivity InhibitioniGEM 2025 Competition | Undergraduate - 2nd Runner Up Learn more about the team: https://teams.igem.org/5913 All Competition Results Available on: https://competition.igem.org/results/2025 Finalist Presentation (Oct 31, 2025) - iGEM Grand Jamboree | Paris Convention Centre jamboree.igem.org Project Title: FoCas: A Novel Atimicrobial-Resistance Treatment and Infectivity Inhibition Platform Project Abstract: The escalating crisis of transmissible antimicrobial-resistant bacterial infections demands innovative therapeutic approaches that move beyond traditional antibiotics. In response, our team presented the concept of FoCas, a novel platform engineered to directly address the dual challenges of drug resistance and infectivity. FoCas leverages a two-component system: the CRISPR-Cas9 gene-editing system for precise genetic targeting and cleavage, and a DNA origami nanostructure as a smart delivery and targeting vehicle. The DNA origami is programmed to recruit and protect the sgRNA/Cas9 complex, selectively bind to specific pathogen (e.g. MRSA), efficiently enter the cell with subsequent CRISPR-Cas9 activation to precisely cleaves and disables the gene responsible for antibiotic resistance (e.g. mecA). By combining precise genetic disruption with targeted delivery, FoCas may possess great potential as a candidate for future antimicrobial therapy, holding immense promise for dealing with superbug infections. https://static.igem.org/peertube/streaming-playlists/hls/264d7ecc-1c35-4d9a-bc8a-7860ddd3bec5/9adee16d-1381-48e1-873e-a3585253dcee-master.m3u8https://video.igem.org/videos/embed/5JjZmDbCbG79NfFP53hNsa91104052025-11-09T23:13:31.735ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/ohNxoKMPBaENiaz3Ayxy9Zhttps://video.igem.org/lazy-static/thumbnails/46ab59e5-e33c-48f8-bee9-6c67ed441891.jpgBrno Czech Republic - iGEM 2025 Grand Prize Winner - NitroDuckiGEM 2025 Competition | Overgraduate - Grand Prize Winner Learn more about the team: https://teams.igem.org/5642 All Competition Results Available on: https://competition.igem.org/results/2025 Finalist Presentation (Oct 31, 2025) - iGEM Grand Jamboree | Paris Convention Centre jamboree.igem.org Project Title: NitroDuck Project Abstract: Dairy farmers are struggling to keep their farms profitable - the protein feed, the most crucial element, is also one of the most expensive components for them. The most popular protein source is soybean. It contributed to the loss of natural ecosystems in Brazil's tropical savanna. Duckweed, the fastest-growing plant on Earth, contains as much protein as soybeans and grows 10x faster. It is set to provide an affordable protein source for every farm. But duckweed, as promising as it looks, cannot match 3000 years of selective breeding of soybeans. To make it a crop, we need SynBio. We are developing a method for 5x faster genetic engineering of duckweed, constructing an autonomous cultivation system and a yield prediction model, simplifying the scaling of duckweed. The first steps toward unlocking the massive potential of this tiny plant… To save farmers' money, the Cerrado savanna, and to make plants truly scalable. https://static.igem.org/peertube/streaming-playlists/hls/b481a205-e326-463c-9c71-22816173d4a1/4ec4cfea-e36d-4ecc-8102-8db974b1c75a-master.m3u8https://video.igem.org/videos/embed/ohNxoKMPBaENiaz3Ayxy9Z895010262025-11-09T23:14:30.295ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/jwcq5VALFziCtztSSY9kSLhttps://video.igem.org/lazy-static/thumbnails/07b3f86b-69bd-4012-acc2-bc832204ad6e.jpgMcGill - iGEM 2025 Grand Prize Winner - Cohera- A New Foundation For Engineered MulticellularityiGEM 2025 Competition | Undergraduate - Grand Prize Winner Learn more about the team: https://teams.igem.org/5556 All Competition Results Available on: https://competition.igem.org/results/2025 Finalist Presentation (Oct 31, 2025) - iGEM Grand Jamboree | Paris Convention Centre jamboree.igem.org Project Title: Cohera: A New Foundation For Engineered Multicellularity Project Abstract: One of nature’s greatest feats is multicellularity—joining together single cells into a whole that is greater than the sum of its parts. Cohera is a complete toolkit for multicellular engineering, allowing synthetic biologists to access the full potential of cell-cell adhesion. Our system enables the creation of microbial networks that can be formed and dissolved on command using a collection of membrane-displayed proteins. Our Model, CoheraTune, expands the range of environments in which our tool operates by strengthening the core of our project at the molecular level. At the macroscopic level, bioengineers can leverage Cohera to solve problems in diverse fields. To facilitate the use of our system as a foundational tool, we developed human-centred roadmaps for applications spanning all iGEM plazas. Cohera streamlines the process of engineering cell-cell adhesion, unlocking endless possibilities. https://static.igem.org/peertube/streaming-playlists/hls/95fbd808-a350-4adc-84ed-e3aa66fe662c/58f3c03c-f84a-4c09-b031-4be2749fe965-master.m3u8https://video.igem.org/videos/embed/jwcq5VALFziCtztSSY9kSL881019762025-11-09T23:20:58.227ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/s2rWs9KTkRLncUZP24SgpDhttps://video.igem.org/lazy-static/thumbnails/8790b0cb-4e51-4570-afa6-678dabe0fecc.jpgSB8.0 - Closing Remarks | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org For the first time since 2017, the SB#.0 Conference is back, reconvening at the iGEM Grand Jamboree: https://jamboree.igem.org/2025/program/sb8 Co-organizers: - Drew Endy - Bioengineering Professor / iGEM Co-founder, Board of Directors (Stanford University / iGEM Foundation / biotic) - Ariel Lindner - Board of Directors | CSO (iGEM Foundation | Paris Biofoundry ) - Matthew Chang - Professor (National University of Singapore)https://static.igem.org/peertube/streaming-playlists/hls/d2c15593-eaa6-4f87-9d9d-0e38e9e65557/b5604eb4-4bdf-4268-bf0f-e83f5e1ff5f3-master.m3u8https://video.igem.org/videos/embed/s2rWs9KTkRLncUZP24SgpD237012025-11-09T22:46:10.486ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/obEqUFtRDbfqzLzYhQWLaFhttps://video.igem.org/lazy-static/thumbnails/112fa3bc-0975-4ace-a418-1efaa9bee0a3.jpgSB8.0 - Welcome | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org For the first time since 2017, the SB#.0 Conference is back, reconvening at the iGEM Grand Jamboree: https://jamboree.igem.org/2025/program/sb8 Co-organizers: - Drew Endy - Bioengineering Professor / iGEM Co-founder, Board of Directors (Stanford University / iGEM Foundation / biotic) - Ariel Lindner - Board of Directors | CSO (iGEM Foundation | Paris Biofoundry ) - Matthew Chang - Professor (National University of Singapore)https://static.igem.org/peertube/streaming-playlists/hls/b3a62bd4-8935-4fef-b73d-b6703f67a451/5f69903e-1d32-4518-83a3-adb6e0176e3d-master.m3u8https://video.igem.org/videos/embed/obEqUFtRDbfqzLzYhQWLaF3100152025-11-09T23:15:44.103ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/mtPcrEjkQKQEgip6xZDt7Rhttps://video.igem.org/lazy-static/thumbnails/727c75fd-3499-4ec5-83c2-df7183f0f592.jpgSB8.0 - Improving How Bioengineers Bioengineer - Panel | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org The 8th edition of the SB#.0 Conference was hosted at the iGEM Grand Jamboree: https://jamboree.igem.org/2025/program/sb8 Panelists: - Stéphane Lemaire - Director Paris Biofoundry (Sorbonne University) - Jenny Molloy - Group Leader (University of Cambridge & ICGEB) - Seung-Goo Lee - Director of Korea Biofoundry (Korea Research Institute of Bioscience and Biotechnology (KRIBB)) - Viji Kandasamy - Head of DNA Foundry (Technical University of Denmark) Moderated by: Matthew Chang - Professor (National University of Singapore)https://static.igem.org/peertube/streaming-playlists/hls/a5d8f0fc-3f78-4198-a92a-94aec966c2d1/4a6dba20-056b-4ec7-8e50-90d9df7835f7-master.m3u8https://video.igem.org/videos/embed/mtPcrEjkQKQEgip6xZDt7R27810252025-11-10T01:12:36.936ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/jaaiA3bDqPs7VyUvguKRqkhttps://video.igem.org/lazy-static/thumbnails/2ed1dd85-07c0-4835-8435-e00af174b1e1.jpgSB8.0 - Get Smart, Go Big - Panel | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org The 8th edition of the SB#.0 Conference was hosted at the iGEM Grand Jamboree: https://jamboree.igem.org/2025/program/sb8 Panelists: - Wataru Mizunashi - Deputy Senior Manager/Fellow (Mitsubishi Chemical/NEDO) - Meichun Fong - Regional Director (Singapore Economic Development Board (EDB)) - Chantal Yue Shen - Chief Scientist of Synthetic Biology (BGI Research) Moderated by: Drew Endy - Bioengineering Professor / iGEM Co-founder, Board of Directors (Stanford University / iGEM Foundation / biotic)https://static.igem.org/peertube/streaming-playlists/hls/930bec51-d85a-4004-bb29-e0ec905d117f/c202dab1-038f-4331-a2c9-fc6f33ff3c9c-master.m3u8https://video.igem.org/videos/embed/jaaiA3bDqPs7VyUvguKRqk37340142025-11-10T01:58:38.186ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/4Uq1e8ScvFouGXpSruKXhxhttps://video.igem.org/lazy-static/thumbnails/81bf4d6b-6bfc-4198-a1c9-5c96954ccf1a.jpgSB8.0 - Constraints & Scale- From Microbial Defense to Marketable Materials | iGEM 2025 Grand Jam...iGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org The 8th edition of the SB#.0 Conference was hosted at the iGEM Grand Jamboree: https://jamboree.igem.org/2025/program/sb8 Speakers: - Aude Bernheim - Group Leader (Institut Pasteur) - David Bikard - Head of Lab (Institut Pasteur) - Ron Milo - Professor (Weizmann Inst.) - Ezhil Subbian - CEO (String ) Hosted by: Ariel Lindner - Board of Directors | CSO (iGEM Foundation | Paris Biofoundry )https://static.igem.org/peertube/streaming-playlists/hls/1f9ce28c-34a7-4e2c-b182-1e3d05712693/2271ec36-757f-4a19-aeae-4790d7e14c35-master.m3u8https://video.igem.org/videos/embed/4Uq1e8ScvFouGXpSruKXhx4648052025-11-10T02:34:46.564ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/1Lb5zzmpH6AEP2AwQF5bh8https://video.igem.org/lazy-static/thumbnails/53b907e8-439b-4444-9df3-34d5129acdd6.jpgSB8.0 - Genome Writing & Synthetic Cells | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org The 8th edition of the SB#.0 Conference was hosted at the iGEM Grand Jamboree: https://jamboree.igem.org/2025/program/sb8 Speakers: - Jason Chin - Director (EIT Generative Biology Institute) - Patrick Cai - Professor (The University of Manchester) - Julius Fredens - Assistant Professor (National University of Singapore) - Petra Schwille - Director (MPI of Biochemistry) - Kate Adamala - McKnight Presidential Fellow Associate Professor (University of Minnesota) Hosted by: Matthew Chang - Professor (National University of Singapore)https://static.igem.org/peertube/streaming-playlists/hls/062aefef-b33f-463d-a364-a01f99715a9f/14a7c90d-08d5-46f4-9022-10ef0316fbc3-master.m3u8https://video.igem.org/videos/embed/1Lb5zzmpH6AEP2AwQF5bh847310312025-11-10T02:51:29.078ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/tetvKLSYtveKARz2vYygpwhttps://video.igem.org/lazy-static/thumbnails/35e3b645-7b9d-4405-ad4c-83e6ba059bad.jpgSB8.0 - Programming Biology- Composition, Design, and Translation | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org The 8th edition of the SB#.0 Conference was hosted at the iGEM Grand Jamboree: https://jamboree.igem.org/2025/program/sb8 Speakers: - Chris Voigt - Professor-Department Head (Massachusetts Institute of Technology) - Wataru Aoki - Professor (The University of Osaka) - Yoshihiro Shimizu - Team Director (RIKEN) - Nick Desnoyer - Postdoc (The Sainsbury Laboratory) - Chenli Liu - Professor (Shenzhen Institutes of Advanced Technology, Chinese Academy of Sciences) Hosted by: Ariel Lindner - Board of Directors | CSO (iGEM Foundation | Paris Biofoundry )https://static.igem.org/peertube/streaming-playlists/hls/dc885e4a-9dae-45f6-8287-61d50f0f67d0/5b32a3a7-a5e7-48ea-871f-be1dfca38dc8-master.m3u8https://video.igem.org/videos/embed/tetvKLSYtveKARz2vYygpw52750342025-11-10T03:30:39.039ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/duJRWkHJjeGxfwTwvhpcvGhttps://video.igem.org/lazy-static/thumbnails/24682986-0032-4fbc-969c-c0f451b7218a.jpgThe Story Behind the First mRNA-CRISPR Therapeutic - Ashley Jacobi (IDT) - Keynote | iGEM 2025 Gr...iGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org From Bench to Breakthrough: Our Story Behind the First mRNA-CRISPR Therapeutic From concept to clinic, turning gene editing tools into real therapies is one of the most ambitious challenges in biotechnology. In this keynote, Ashley Jacobi from Integrated DNA Technologies (IDT) shares the inside story of delivering the world’s first mRNA‑CRISPR therapeutic, from the scientific breakthroughs that made it possible to the strategic decisions that shaped its path to patients. https://static.igem.org/peertube/streaming-playlists/hls/6530e74b-a360-408e-a5c3-7027bc351dfe/bed3d292-12fd-4def-b41e-6452e5195510-master.m3u8https://video.igem.org/videos/embed/duJRWkHJjeGxfwTwvhpcvG19980432025-11-10T02:48:19.524ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/qYvtpCXMmYnTP571Em4Xmzhttps://video.igem.org/lazy-static/thumbnails/c9086f29-40b2-464d-ac51-27af27f1ffa7.jpgShining a Light on Biodesign - Keith Wood (LightBio) - Keynote - iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org Biodesign turns imagination into living systems and companies. In this keynote, Keith Wood, founder of Light Bio, shares the human story behind building with biology: early sparks, dead ends, pivotal design choices, and what it takes to bring glowing ideas to life. From bench to brand, Keith unpacks how biodesign principles guide discovery, engineering, and responsible deployment, and what the next generation of iGEMers should do now to turn their best ideas into impact. The talk is followed by a fireside chat, moderated by Martyn Dade-Robertson (Professor (Cambridge University Press), exploring biodesign as a bridge between art, science, and entrepreneurship, and what it takes to bring light, literally and metaphorically, into the world of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/ca3f245e-0e59-4d20-b23f-0256ea68dddd/77dead40-d024-4294-98b8-55b7fd5026c5-master.m3u8https://video.igem.org/videos/embed/qYvtpCXMmYnTP571Em4Xmz23680472025-11-10T04:13:43.752ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/kVxGNmpyK6zzjskMh92uc6https://video.igem.org/lazy-static/thumbnails/347a7a83-5ac2-4b64-a843-037c35c0079a.jpgBuilding Synergy Across Borders - Panel | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org Synthetic biology is advancing faster than ever, and its future depends on how we work together. This panel gathers global leaders shaping the field’s direction to discuss what true international coordination looks like in practice: connecting research and regulation, innovation and equity, security and sustainability. From designing shared standards to supporting the next generation of bioengineers, the discussion highlights why collaboration across continents is not optional, but essential. At iGEM, the world’s largest synthetic biology gathering, this conversation couldn’t be more timely, unfolding at exactly the right moment for global collaboration. Together, the speakers explore how global synergy can accelerate innovation, ensure responsibility, and unlock the full potential of engineering biology for all. Moderated by: Fiona Mishel - Director, International Outreach (SynBioBeta) Panelists: - Richard A Johnson - Director/Distinguished Visiting Fellow (iGEM Foundation/Stanford University-Hoover Institution) - Seung-Goo Lee - Director of Korea Biofoundry (Korea Research Institute of Bioscience and Biotechnology (KRIBB)) - India Hook-Barnard - CEO (EBRC / Engineering Biology Research Consortium) - Richard Kitney - Director (SynbiCITE)https://static.igem.org/peertube/streaming-playlists/hls/a15797a0-0004-4ffd-ae85-1e79e1fe79db/cf2573f5-9430-4f5f-8fd8-13d0785c1dcc-master.m3u8https://video.igem.org/videos/embed/kVxGNmpyK6zzjskMh92uc625640132025-11-10T04:30:16.045ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/aKkQbErimg3mmuJzFoazVGhttps://video.igem.org/lazy-static/thumbnails/79c7f910-cb7e-4cf8-b0db-f079e30dc794.jpgBiomanufacturing Billions of Doses: A 5-Year Review on the COVID-19 Vaccine - Adam Ritchie | iGEM...iGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org When the world needed billions of doses of a COVID-19 vaccine quickly, a new model of global collaboration, manufacturing, and delivery emerged. In this keynote, Adam Ritchie, Senior Vaccinologist at the University of Oxford’s Jenner Institute and a central figure behind the Oxford–AstraZeneca vaccine, shares the inside story: how distributed manufacturing enabled rapid global scale-up, how partnerships and regulation were navigated under intense pressure, and what lessons can guide future pandemic preparedness. The talk is followed by a fireside chat, moderated by Nadine Bongaerts (External Relations Officer at iGEM Foundation), diving into the science, logistics, and human stories behind one of the most significant biomanufacturing achievements in history.https://static.igem.org/peertube/streaming-playlists/hls/4eef7381-04b8-4329-8e36-4ac5f366ef36/4013bb2c-5d2d-42cd-8e6b-9129b34c4987-master.m3u8https://video.igem.org/videos/embed/aKkQbErimg3mmuJzFoazVG266001212025-11-10T04:40:52.342ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/fCc4YDMps6cJcwi71VEdcVhttps://video.igem.org/lazy-static/thumbnails/4d79bd53-de17-474c-8b7f-a6256ade428a.jpgFuture Builders: Designing the Next Decade of AI and Biology - Panel | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.org AI is reshaping biology, but we’re only at the beginning. As more iGEM teams adopt AI tools and industry breakthroughs accelerate, the next decade will define how intelligence and engineering converge. Building on the 2024 Jamboree panel that examined the cultural and technical gaps between AI and biology, this year’s conversation takes a bold step forward: What happens when AI and biology truly evolve together? Leaders from Twist Bioscience, DeepLife, NVIDIA, and SynBioBeta imagine what AI-powered biology could look like by 2035. The conversation explores not just what’s possible, but what’s desirable, and how today’s innovators can help shape the tools of tomorrow. Moderated by: John Cumbers - Founder and CEO (SynBioBeta) Panelists: - Sana Zakaria - Senior Research Leader (RAND Europe) - David Ruau - Head of Business Development, Healthcare & Life Science (NVIDIA) - Jonathan Baptista - CEO (DeepLife)https://static.igem.org/peertube/streaming-playlists/hls/766d89c7-d03e-47ab-a8fa-135afd945aa3/a74c051d-cc29-4d54-993c-8f18bb99bb1b-master.m3u8https://video.igem.org/videos/embed/fCc4YDMps6cJcwi71VEdcV27670362025-11-10T04:57:25.954ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/4jUwoXi9C6HxdrRoBwCfsVhttps://video.igem.org/lazy-static/thumbnails/d6dd481d-62d0-4f66-b60e-c1fc72dcb8ab.jpgFinding the Source of Beauty from AstaxanthinThe main content of this speech is about the main purpose of our team's research on astaxanthin, some unforgettable experiences and shortcomings in the experimental process, hoping to bring some inspiration to the team that studies astaxanthin in the future.https://static.igem.org/peertube/streaming-playlists/hls/1aef2c46-1d9e-466a-a761-5a2810e37971/73d37af2-4f95-47bd-8b4c-02c51e19548d-master.m3u8https://video.igem.org/videos/embed/4jUwoXi9C6HxdrRoBwCfsV303062025-11-10T22:23:44.991ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/uTyC4ShCCPeQWMrZCG1FR8https://video.igem.org/lazy-static/thumbnails/2bc515c0-f915-4068-a053-0c688691a1c9.jpgHow to Start an iGEM Team from Scratch (or at Least Try)?Starting an iGEM team is not always easy. You need to come up with an idea (which can be tricky when everyone wants to contribute), look for sponsors (sometimes for as long as six months!), manage team dynamics, organize to-do lists, and so much more. It wasn’t a given, but we made it! We are here to share some tips on how to successfully run a team, along with a few of the funniest stories from our journey. All of this with plenty of humor, because the iGEM adventure is above all a human adventure rich in exchange and laughter.https://static.igem.org/peertube/streaming-playlists/hls/e9f2eb2e-1d23-4145-96b8-f18e200b0c5d/4c137dfa-719c-4016-a062-580b868487fe-master.m3u8https://video.igem.org/videos/embed/uTyC4ShCCPeQWMrZCG1FR8383072025-11-10T22:32:03.003ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kZM3zy2ydHPVPCnKTAiTd1https://video.igem.org/lazy-static/thumbnails/afbd4a12-9165-43a2-a344-64838ad59b5e.jpgHistory of Publishing iGEM ProjectsFor over two decades, the iGEM Competition has been a global platform advancing synthetic biology through interdisciplinary research and innovation. It has inspired thousands of young scientists worldwide to develop creative solutions to local and global challenges. Each year, over 400 teams design novel systems and synthetic biology projects tackling diverse issues. To further support their learning and help bring their work to a wider audience, iGEM partners with academic journals to provide opportunities for teams to publish in peer-reviewed publications.https://static.igem.org/peertube/streaming-playlists/hls/a1eeca00-0045-477f-a9bb-11a2cf8637cc/30259423-6875-4457-997c-7b9b4ea89995-master.m3u8https://video.igem.org/videos/embed/kZM3zy2ydHPVPCnKTAiTd1383002025-11-10T19:13:39.246ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/d3cY5JeSstWXk1FGNa4jFyhttps://video.igem.org/lazy-static/thumbnails/93548d42-c191-4012-83ef-6853be2a2f80.jpgCleaning Up Oil Spills With the Help of Alcanivorax borkumensisMarine oil spills pose recurring threats to ocean ecosystems. Alcanivorax borkumensis, a halophic, hydrocarbonoclastic bacterium evolved to thrive around oil-contaminated environments, is promising for bioremediation. Its concentration increases naturally after oil spills, efficiently degrading alkanes, utilizing specialized enzymes including alkane monooxygenases, cytochrome P450s, and biosurfactant-producing pathways. We explored A. borkumensis's biofilm formation and alkane oxygenation, identifying its overall better performance over champion isolates. Through a proteomic study, we identified secreted proteins in alkane degradation's first steps, testing their degradation abilities through a biochemical NPD-hydrazine assay. We deem the flavin-binding monooxygenase AlmA promising in alkane degradation. We also focused on creating a genetic toolbox for A. borkumensis, studying conjugation and broad-host range plasmid transformation. The findings indicate the enzymes responsible for the degradation's first steps, setting the foundation to create more complex genetic toolboxes. Future implementation, more efficient oil spill cleanup, has potential to save marine life and protect coastal industries.https://static.igem.org/peertube/streaming-playlists/hls/617c86be-178a-4f6f-9ee1-712b26f339c6/2ddeaf46-9902-44e5-9681-36dbcecda17f-master.m3u8https://video.igem.org/videos/embed/d3cY5JeSstWXk1FGNa4jFy517062025-11-10T22:33:55.909ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/nKZw353ttSRpGRwjTnUJhyhttps://video.igem.org/lazy-static/thumbnails/093f83af-e33e-490d-ab07-aeaed3ef1a82.jpgOdorPure: An Odor-Control Cat Litter Additive Powered by Antisense RNAOdor control is a critical feature in the cat litter market, as ammonia produced from urea degradation is the main source of unpleasant smell. Conventional deodorization methods, such as physical adsorption or fragrance masking, carry inherent risks and limitations. To overcome these issues, we designed antisense RNA targeting bacterial urease mRNA to block urease synthesis in ureolytic bacteria, thereby suppressing ammonia release at its origin. For the first time, we developed an asRNA-chitosan-montmorillonite complex as a safe, eco-friendly, and antibacterial additive for cat litter that tackles urine odor from the source while enhancing litter performance.https://static.igem.org/peertube/streaming-playlists/hls/b0345732-1bf5-4597-874c-2598e71a8d78/135641aa-961e-4f2a-ac11-677dab146dfb-master.m3u8https://video.igem.org/videos/embed/nKZw353ttSRpGRwjTnUJhy407002025-11-10T22:34:53.701ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pHSopvXNxNiuCYzh6qX51nhttps://video.igem.org/lazy-static/thumbnails/753502fa-57ec-43b6-b094-fdc558932d93.jpgMicrobial Synthesis of the Healthy Sweetener Erythritol Using Dual SubstratesErythritol, as a natural sweetener, exhibits unique physicochemical properties—it avoids the aforementioned health hazards while offering additional benefits such as low caloric value, high stability, and no gastrointestinal discomfort. For erythritol production, chemical synthesis methods are economically unviable, leading to growing research focus on microbial biosynthesis. Current studies primarily aim to improve erythritol yield and production efficiency. Addressing this challenge, our work first enhances and integrates the erythritol biosynthesis pathway in bacteria through molecular biology techniques. Additionally, we introduce a glycerol metabolic pathway, which serves dual purposes: reducing byproduct formation and expanding the utilization of low-cost substrates by redirecting carbon flux toward erythritol production. Glycerol, an abundant and low-value renewable resource, has recently gained attention as a promising substrate for erythritol fermentation. This study explores its potential to enable cost-effective and sustainable erythritol biosynthesis.https://static.igem.org/peertube/streaming-playlists/hls/c01abc43-e5a2-4c62-8fee-f93b9c2fcf5d/c1245480-9539-4116-af82-b4d60765e0bf-master.m3u8https://video.igem.org/videos/embed/pHSopvXNxNiuCYzh6qX51n625012025-11-10T22:39:44.671ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/h7yKyofiSBKARDpu37ynHAhttps://video.igem.org/lazy-static/thumbnails/db78faf8-8ac6-433f-b042-c342739373ef.jpgLignoDoc: Biocatalytic Conversion of Lignin-Derived Vanillic Acid to ParacetamolThe utilization of lignin in straw remains challenging. Direct incineration not only exacerbates the climate crisis but also constitutes a waste of resources. To address this issue, we have successfully converted lignin into paracetamol while preserving its benzene ring structure. This approach helps mitigate environmental problems caused by straw burning and offers a sustainable pathway for pharmaceutical production. In the future, this project is expected to pave the way for more high-value applications of lignin, enabling the green synthesis of valuable benzene-ring-containing products.https://static.igem.org/peertube/streaming-playlists/hls/827cdd5d-42b8-4a89-8abf-c7a42ef22b80/55bc295c-4c12-4f92-9afc-93a529b1c63d-master.m3u8https://video.igem.org/videos/embed/h7yKyofiSBKARDpu37ynHA665092025-11-10T22:40:47.598ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eFbDKmUCtx4nveBsdHX9imhttps://video.igem.org/lazy-static/thumbnails/b81d5be3-3727-4469-a195-570ad46a8032.jpgY.E.P. - Yeast Electron ProductionTo reduce harmful greenhouse gas emissions, renewable energy storage is critical. Lithium-ion batteries dominate but pose environmental risks from mining, production, and disposal. Microbial fuel cells (MFCs) offer a greener alternative: microorganisms oxidize organic waste, generating electricity while cleaning wastewater, providing sustained, low-carbon energy with fewer ecological impacts. In this project, we engineer yeast MFCs with enhanced electron storage and electron transfer capacity. We achieve that goal by elevating the Saccharomyces cerevisiae intracellular NADH pool and enhancing their extracellular electron transfer. Using the CRISPR/Cas9 genetic editing tool, we deleted genes encoding the key enzymes of glycerol and ethanol biosynthesis, and external mitochondrial NADH dehydrogenase. Engineered strains were tested in custom MFC hardware. To fully leverage the increased intracellular NADH levels, we propose the heterologous expression of fungal cellobiose dehydrogenase (CDH) on the yeast cell surface to enhance the cell’s ability to transfer electrons to electrodes.https://static.igem.org/peertube/streaming-playlists/hls/6ebf5f97-e158-4674-b84a-b573a02753b6/44deaab9-ee13-4463-8264-47d15738cb81-master.m3u8https://video.igem.org/videos/embed/eFbDKmUCtx4nveBsdHX9im563012025-11-10T22:50:23.686ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4novrzfn7uH1YDWoR6Xk5shttps://video.igem.org/lazy-static/thumbnails/69529a35-bd8c-4e10-97ec-70b2023dadcf.jpgAPHiGO-A Next-Generation RNA Pesticide Platform for Citrus Aphid ControlAs the world's largest citrus producer, China contributes one-quarter of global citrus output, yet faces severe threats from the concealed brown citrus aphid. To address this, we present APHiGO—an RNAi-based platform for sustainable aphid control, integrating smart monitoring with precise molecular intervention. APHiGO’s early-warning module uses engineered Bacillus subtilis to detect honeydew and emit volatile signals, monitored via IoT sensors. Upon detection, RNAi molecules targeting vital aphid genes are delivered via trunk injection. Packaged in engineered virus-like particles, these molecules are efficiently ingested, silencing key genes and impeding development. For localized outbreaks, modified Metarhizium fungi deliver dsRNA externally and internally, enhancing lethality and delaying resistance. By combining biosensing, RNAi targeting, and biocontrol, APHiGO transitions pest management from chemical reliance to intelligent, sustainable precision agriculture.https://static.igem.org/peertube/streaming-playlists/hls/1b47e7ec-81b2-46d0-86a4-7f9751febbb6/ed98d261-8a54-4f9b-be63-c05b12470b2a-master.m3u8https://video.igem.org/videos/embed/4novrzfn7uH1YDWoR6Xk5s570052025-11-10T22:54:07.996ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7MtLz2U3NVGzThaaEbTdAVhttps://video.igem.org/lazy-static/thumbnails/9fd1c51a-2929-4b77-9f01-ddfe1aa1f06c.jpgNicotinamide Synthase Gene Empowers Crop Iron and Zinc BiofortificationIron (Fe) and zinc (Zn) are essential trace elements for human health. However, iron and zinc deficiency is widespread worldwide, affecting approximately 2 billion people, this project intends to use the key amino acid sites at the C-terminus of AtNAS1 protein predicted in published literature to affect enzyme activity, and mutate the key sites of the full-length protein. After purifying the AtNAS1 mutant protein through prokaryotic expression in Escherichia coli, the enzyme activity mechanics analysis was performed. Compared with the wild-type AtNAS1 protein, and using the truncated AtNAS1 protein reported in the literature as a positive control for increased enzyme activity, the point mutation combination with stronger activity of the AtNAS1 full-length protein was screened for Bacillus subtilis expression vector construction, and the iron and zinc content in tobacco leaves and roots was measured after tobacco soil culture.https://static.igem.org/peertube/streaming-playlists/hls/36f06a1d-ee58-428c-8d43-3e543591dcb1/c81a2962-733e-47c4-b38d-13093a1f02a8-master.m3u8https://video.igem.org/videos/embed/7MtLz2U3NVGzThaaEbTdAV538032025-11-10T22:55:57.712ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/uq6G3bo5ybANkbCDEKRrUDhttps://video.igem.org/lazy-static/thumbnails/957f8a09-d110-4911-be7f-107e7f9b7c1c.jpgDetection and Bioremediation of Polychlorinated BiphenylsThe goal of our project is to develop a synthetic biology-based system for the detection and bioremediation of polychlorinated biphenyls (PCBs)—persistent organic pollutants that pose environmental and health risks. We are engineering Pseudomona putida to express genes from the bph (biphenyl degradation) pathway, enabling them to enzymatically break down PCB compounds into less toxic intermediates. To complement this, we are designing a biosensor circuit that uses synthetic aptamers—short nucleic acid sequences that specifically bind PCBs—to initiate a response via a CRISPR-Cas12a-based system. This dual-function system will allow our engineered organisms to both sense and respond to PCB contamination in a controlled, efficient, and field-deployable manner.https://static.igem.org/peertube/streaming-playlists/hls/e61d3d5f-2c00-4e47-8c71-8bf1e08c7ec9/3e960b7e-83d4-44d2-86ff-1f4f1d51aaed-master.m3u8https://video.igem.org/videos/embed/uq6G3bo5ybANkbCDEKRrUD501032025-11-10T22:57:58.605ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eNXsvsDoWiMWEqvGwTSHNVhttps://video.igem.org/lazy-static/thumbnails/f963de9c-b610-4901-bcd2-83fd43a1d321.jpgMining of Marine PET-Degrading EnzymesThe marine metagenome harbors numerous functional genes that have yet to be discovered and engineered for utilization. Currently, most of the known wild-type PET-degrading enzymes and engineered high-activity PET-degrading enzymes such as IsPETase and ICCG are derived from terrestrial sources and are suitable for functioning in low-salt concentration conditions, thus their application scenarios are greatly restricted by salt concentration. At present, microplastic pollution in marine environments is severe, and one major source of marine microplastics is high salinity wastewater. The main objective of our project is to solve the degradation problem of PET microplastics in high-salt water bodies by mining PET-degrading enzymes from the ocean and conducting targeted modifications to enhance their activity.https://static.igem.org/peertube/streaming-playlists/hls/6fd5314e-f169-4d00-9af7-974967d8b2a5/7ad3fc8e-3614-455b-8f64-dc2acc37266b-master.m3u8https://video.igem.org/videos/embed/eNXsvsDoWiMWEqvGwTSHNV563012025-11-10T23:00:45.262ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/81rB2FabUio3GxtTWX1Rwghttps://video.igem.org/lazy-static/thumbnails/f3be1630-7618-40b8-8320-f752c83d2ba7.jpgSurfing TentaRobot: A Tide-Synchronized Biofilm Platform for Heavy-Metal Remediation in Mangrove ...Mangrove ecosystems face escalating heavy metal pollution threats. We developed "Surfing TentaRobot"—a tide-adaptive bioremediation platform using engineered Bacillus subtilis. Core innovations: (1) Self-assembling adsorption: TasA-ShMT3 fusion proteins and ΔsinR-tasA ΔepsA chassis achieve effective heavy metal capture. (2) Biomineralization: Dsp-aCA carbonic anhydrase catalyzes MICP, precipitating CaCO₃/MgCO₃ to permanently sequester adsorbed metals and prevent tidal re-mobilization. (3) Osmotic NOT gate enables tidal rhythm function switching: LLM-assisted workflow identified osmotic-responsive PproHJ promoter; TetR-based NOT gate design enables functional switching between adsorption and mineralization. (4) Cross-scale modeling: Six-layer framework spans molecular docking to field deployment, including competitive assembly models explaining capacity limitations, coupling kinetics quantifying mineralization interference, UTide tidal analysis determining optimal deployment parameters, and biofilm growth models guiding operational strategies. (5) Social responsibility: 215+ surveys and educational activities reaching 600+ students integrated stakeholder feedback. This work demonstrates transforming tidal salinity fluctuations from engineering constraints into regulatory signals for coastal ecosystem remediation.https://static.igem.org/peertube/streaming-playlists/hls/38bfbfe6-99af-4ec8-8c1d-46c46ec87a2f/d13a980f-c9c4-486a-b2de-de8212abcbed-master.m3u8https://video.igem.org/videos/embed/81rB2FabUio3GxtTWX1Rwg378032025-11-10T23:02:40.957ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/oCpEJt2cmLK9s1exCJF8sKhttps://video.igem.org/lazy-static/thumbnails/2e908aa9-843e-4ba9-87b0-0dc83d2d51ae.jpgPestacheck: An Improved Pesticide Residue Detection Test StripPesticide residues on food pose serious health risks to the whole world, yet current detection methods remain inefficient and unstable. Recognizing this issue, we developed Pestacheck, a rapid, low-cost pesticide residue detection test strip based on the enzyme-inhibition principle of acetylcholinesterase (AChE). Through Alanine-scanning mutagenesis, we engineered AChE mutants via Cell-Free expression system. The optimized enzyme was immobilized with Gold Nanoparticles (AuNP) to improve sensitivity and integrated into a colloidal gold-based test strip for visible colorimetric detection. Together, Pestacheck provides a user-friendly synthetic biology solution for on-site pesticide residue detection.https://static.igem.org/peertube/streaming-playlists/hls/b73e697b-46e9-49e0-a05f-f35320c27383/a9850fbb-14e5-4f61-ac28-ddbf17a4d7c0-master.m3u8https://video.igem.org/videos/embed/oCpEJt2cmLK9s1exCJF8sK4990132025-11-10T23:02:58.589ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/tSHtb33iPSQDetyzuh5DnZhttps://video.igem.org/lazy-static/thumbnails/3745d235-c97f-4ee8-94e0-b883a1802f05.jpgPOVANO: Engineering Pichia pastoris as a Circular, Nutritional Microbial Protein Platform for Sus...POVANO aims to develop a circular, low-impact protein production platform by engineering the methylotrophic yeast Pichia pastoris to convert CO₂-derived green methanol into high-yield, nutritionally balanced protein for pet food, addressing sustainability challenges from conventional meat- and fish-based feeds. We constructed a pGAPZ-based ovalbumin expression cassette (pGAP–αMF–OVA–6×His–tAOX1), integrated and validated its expression & secretion, and implemented heterologous expression of inositol biosynthesis enzymes (ScIPS/INO1 and EcIMP) to produce myo-inositol for pet health benefits. To improve product quality and scale-up acceptability, we used CRISPR/Cas9 to knock out pyruvate decarboxylase (PpPDC1) and suppress alcoholic volatiles. POVANO demonstrates a controllable, scalable microbial route that can be tailored for amino-acid balance and reduced land, water and greenhouse gas footprints, aligning with SDGs for responsible consumption and climate action. Next steps include yield and nutritional optimization, pilot-scale fermentation, safety/nutritional testing, and life-cycle analysis to quantify environmental impact.https://static.igem.org/peertube/streaming-playlists/hls/e1bb7cfa-16ca-4991-a40d-81d2f86ce18f/8f8440ec-1003-4229-acf3-8ff8fce2d736-master.m3u8https://video.igem.org/videos/embed/tSHtb33iPSQDetyzuh5DnZ544032025-11-10T23:08:15.072ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cWSx3A3uiceWCnt8mAKojehttps://video.igem.org/lazy-static/thumbnails/7406fa13-d683-4244-97f8-9d7d9ee7de0a.jpgPROTATO: Proteolysis-based Detection for Pseudomonas syringae pv. tomato Affected TomatoEarly detection of plant pathogens is essential for reducing crop losses, yet most diagnostic systems remain laboratory-bound. We developed PROTATO: Proteolysis-based Detection for Pseudomonas syringae pv. tomato Affected Tomato, a cell-free and protein logic–based biosensing platform enabling on-site pathogen detection. PROTATO integrates a coiled-coil–mediated chain exchange reaction as its molecular logic core and a dual-input AND gate that responds specifically to the pathogen effector AvrRpt2 protease and the phytotoxin coronatine (COR), reconstituting split luciferase, GFP, or trehalase reporters. A positive-feedback loop amplifies protease activity, improving detection sensitivity and signal strength. To enable field deployment, we engineered the PROTATO KIT, a 3D-printed electrochemical device that converts glucose signals into electronic readouts via glucose oxidase–modified electrodes and microcontrollers. Portable (Air) and scalable (Pro) versions support diverse agricultural applications. Our project establishes a generalizable framework for cell-free protein logic, advancing low-cost biosensing for crop protection and beyond.https://static.igem.org/peertube/streaming-playlists/hls/60bdd511-4e5f-4b7c-854e-6272324eaad1/9f5574e5-ebb6-443f-8595-33fc6967acc1-master.m3u8https://video.igem.org/videos/embed/cWSx3A3uiceWCnt8mAKoje572032025-11-10T23:17:36.477ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4pVybmyDcLGuXdQuEkPGxRhttps://video.igem.org/lazy-static/thumbnails/fc377abd-2362-4a12-a6f2-72411be6a3ea.jpgUNIglobin: A Portable Enzymatic Kit for Universal Blood ConversionAs an essential medicine, blood should be “available at all times, in adequate amounts and in appropriate dosage forms, with assured quality and affordability,” according to the World Health Organization (WHO). However as it stands in 2024, blood still fails to meet the availability and safety qualities in over half the world’s countries. Our solution is a compact, field ready ABO blood conversion kit. We have identified, cloned, and characterized activity for glycoside hydrolase enzymes from Akkermansia muciniphila. These enzymes have the ability to cleave off the A and B blood antigens and their extended antigen groups and can be lyophilized for long term storage. Our complete kit also includes a filtering system made of biological materials to remove immune reactive white blood cells and a Miniaturized Electronic Antigen Biosensor (MEAB) for rapid quantification of ABO antigens. Together these technologies can process safe, universally compatible blood available, anytime, anywhere.https://static.igem.org/peertube/streaming-playlists/hls/1ba286ea-17bd-4492-9e26-6f83963ac91f/3690bacf-023e-4d07-ba12-e3a67ad32928-master.m3u8https://video.igem.org/videos/embed/4pVybmyDcLGuXdQuEkPGxR528062025-11-10T23:12:55.846ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/6rSutNnTT5BDFLmKuMcwoThttps://video.igem.org/lazy-static/thumbnails/e3b07c03-32e4-4c72-826d-3a7b69530b83.jpgGlycosy-N-ation: Development of Microbial Platforms for the Production of Recombinant GlycoproteinsN-glycosylation, the attachment of glycans to asparagine residues, is a critical post-translational modification that influences protein folding, stability, signaling, and activity. Over half of human proteins are glycosylated, yet current therapeutic glycoprotein production depends on eukaryotic hosts, as common models such as Saccharomyces cerevisiae and Escherichia coli are unsuitable. E. coli lacks an N-glycosylation pathway, leading to insoluble proteins, while S. cerevisiae produces hypermannose glycans that are immunogenic in humans. To overcome these limitations, we are engineering optimized microbial platforms for glycoprotein synthesis. In yeast, glycan chain extension is disrupted to generate simpler structures, and in E. coli, a de novo glycosylation system is reconstructed using modular Golden Gate-compatible parts. Both systems aim to produce the universal precursor Man₃GlcNAc₂. We developed 24 yeast mutants to evaluate growth, fitness, morphology, protein production, and glycan transfer, and incorporated archaeal oligosaccharyltransferases into E.coli to explore their ability to transfer glycans to human-like sequons.https://static.igem.org/peertube/streaming-playlists/hls/2c1a675c-0973-4b7b-bb44-1aae339a252f/41979d4f-1dc5-4376-b607-c417625939d9-master.m3u8https://video.igem.org/videos/embed/6rSutNnTT5BDFLmKuMcwoT612042025-11-10T23:17:10.422ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/823oyUUYLSW5hoRskKLaCihttps://video.igem.org/lazy-static/thumbnails/43993da1-ac27-4efd-a322-b8f859ccf49f.jpgSquoileneSquoilene tackles waste oil (WO) pollution and the high cost of squalene production by integrating experimental work, model and hardware into a cohesive synthetic biology project, engineering Yarrowia lipolytica into an efficient cellular refinery.Through human practice and interdisciplinary communication, we refined design and promoted implementation. We established TriScale, a hierarchical in silico pipeline integrating signal peptide–linker–based peroxisomal targeting design, rational tHMGR enzyme engineering, and system-level growth modeling for predictive and knowledge-guided prototyping. Building on this framework, we developed a compartmentalized metabolism strategy, relocating the entire MVA pathway into peroxisomes to enhance flux and isolate toxic intermediates. To bridge lab design with application, we created the low-cost, automated Integrated Fermentation & Processing System (iFPS), streamlining production from inoculation to crude lysate collection. Our integrated approach demonstrates a sustainable, economically viable route to convert pollutants into valuable cosmetic ingredients，while contributing innovations in culture analysis and fermentation processing.https://static.igem.org/peertube/streaming-playlists/hls/38d52fcc-f9c4-43c7-a503-4164cca124ed/d18b21b5-6026-4e73-95e7-ab6e886930d2-master.m3u8https://video.igem.org/videos/embed/823oyUUYLSW5hoRskKLaCi5790192025-11-10T23:19:59.733ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4BJTqWymtWTmYBnyNmMSvKhttps://video.igem.org/lazy-static/thumbnails/23603554-da1c-4cad-9efd-4ecdca46f00a.jpgSurFactory: A Sustainable Pulmonary Surfactant InnovationPremature newborns often face respiratory distress due to underdeveloped lungs, requiring pulmonary surfactant for survival. Current treatments are costly, rely on animal-derived sources, and remain inaccesible to many healthcare systems wolrdwide. Our project uses synthetic biology and biomanufacturing to create an alternative surfactant that is animal-free, affordable, and scalable. By engineering microorganisms to produce key surfactant proteins, we aim to deliver a sustainable solution that bridges health inequities and reduces dependence on traditional animal-derived products. This approach not only addresses a pressing medical challenge but also introduces an ethical and environmentally responsible production pipeline. Through our work, we envision a future where every premature infant, regardless of geography or economic status, can access life-saving pulmonary surfactant demonstrating how synthetic biology can transform global health challenges into opportunities for innovation, sustainability, and equity.https://static.igem.org/peertube/streaming-playlists/hls/1d48e0b8-58a9-49f0-b187-d0603f45384d/f935b311-35d6-4c2e-82fb-b8c5e8a305f3-master.m3u8https://video.igem.org/videos/embed/4BJTqWymtWTmYBnyNmMSvK575072025-11-10T23:22:36.725ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/6bsXWTpDcMrGJzLwYmeDArhttps://video.igem.org/lazy-static/thumbnails/505f4e32-2098-4bc0-be2e-2cc4e6422fea.jpgREEvolutionaTeRare earth elements (REEs) and tellurium are essential for high-tech and renewable technologies, yet less than 1% are currently recycled. To address this, we developed a sustainable, bio-based strategy to recover these elements from e-waste streams. We engineered a modular system using amyloid protein fibers displaying REE-binding proteins, achieving high-affinity capture of REE ions and creating a powerful part collection. Mathematical modeling and molecular dynamics simulations guided design optimization, while a business plan and market analysis evaluated commercial viability. For tellurium recovery, we harnessed the Ter operon to efficiently reduce toxic tellurite into elemental tellurium. To promote our project and raise awareness of synthetic biology, we conducted extensive outreach through exhibitions, workshops, educational activities, blogs, podcasts, and interactive games across hospitals, museums, and schools. Thus, our project demonstrates an integrated synthetic biology platform for the biological recovery of REEs and tellurium from electronic waste.https://static.igem.org/peertube/streaming-playlists/hls/29f3bf9f-0178-4402-bbe7-b6fc3a6268c9/f8b1314c-8705-4c2b-851a-e5d34501097e-master.m3u8https://video.igem.org/videos/embed/6bsXWTpDcMrGJzLwYmeDAr419032025-11-10T23:22:49.831ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/rXRACdVN4MAWcQ3J1qH6CLhttps://video.igem.org/lazy-static/thumbnails/9b425394-8b7a-444b-8ec4-b7b62d3cf6fb.jpgLL-37 — The Human Antimicrobial PeptideAntimicrobial resistance (AMR) poses a severe global public health threat, with drug-resistant bacteria increasingly endangering human health.The human antimicrobial peptide LL-37 offers a promising solution due to its high safety, low resistance potential, and immunomodulatory activity. Our project employs Saccharomyces cerevisiae as a chassis cell, integrating genetic engineering, fermentation optimization, and a D2P cell-free system to achieve high-yield biosynthesis of functional LL-37 at a significantly lower cost than chemical synthesis.We developed the CytoFlow platform, integrating biodynamic simulations, reinforcement learning, and diffusion models. This platform optimizes S. cerevisiae cultivation and designs LL-37 variants with superior antimicrobial performance. We also developed the EFUV-Cycle and RLAI-Cycle, and designed the educational game Cytopia Defense, the "Life Glow" bio-art activity, and the handbook Busting Rumors about Synthetic Biology to enhance the project's impact in both Integrated Human Practices and education.https://static.igem.org/peertube/streaming-playlists/hls/d240f066-fb66-42dd-b9b3-e037a7ac3570/47ba3d98-1286-4121-a9a7-6101e0b341e0-master.m3u8https://video.igem.org/videos/embed/rXRACdVN4MAWcQ3J1qH6CL7490102025-11-10T23:38:23.584ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/753d7QsPgs5N1Cpu6KM6fJhttps://video.igem.org/lazy-static/thumbnails/3b2ab474-ccec-4dec-84f5-9f805a76bb28.jpgOptimizing Heparosan Biosynthesis in E. coli BL21 By Use of an RBS LibraryHeparosan is a key polysaccharide precursor in the synthesis of heparin, an essential anticoagulant widely used in medicine. However, current methods of heparosan production rely on inefficient microbial strains. Our project aims to design and optimize synthesis of heparosan in a more commonly used strain - BL21 (DE3). We are reconstructing the heparosan synthesis pathway found in E. coli K5 by expressing four essential genes—kfiA, kfiB, kfiC, and kfiD, and inserting them onto a single plasmid, incorporating a library of degenerate ribosome binding sites (RBS) on our primers. Using degenerate DNA sequences for our RBS allows us to synthesize a library of varying ribosomal binding affinity for each gene, which in turn, gives us a wide range of gene expression. This allows us to determine the optimal activity level for each gene to produce the most heparosan.https://static.igem.org/peertube/streaming-playlists/hls/31272b18-5d07-43ef-a909-164171185862/cca23ee7-38db-4765-839b-b7edf0fc3709-master.m3u8https://video.igem.org/videos/embed/753d7QsPgs5N1Cpu6KM6fJ6360252025-11-10T23:34:36.421ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eCTSexkiByMSB4DceUERFChttps://video.igem.org/lazy-static/thumbnails/32358802-b67f-4bef-b808-4d4668a85166.jpgData Visualization Techniques for Better Science communicationA talk about the importance of data visualization to enhance communication of scientific results by renowned award winning data visualization expert and biodesigner Mihály Minó of MOME (Moholy-Nagy University of Art & Design) Budapest.https://static.igem.org/peertube/streaming-playlists/hls/6e6d8abb-0148-4f0d-8b32-f19aa257196e/a39715d5-2855-4b7c-89dd-2744c357a242-master.m3u8https://video.igem.org/videos/embed/eCTSexkiByMSB4DceUERFC988012025-11-10T19:33:17.891ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/uhfV5VHV1XGodPTatfPMfQhttps://video.igem.org/lazy-static/thumbnails/81093d00-e610-4435-99ba-ee2546ad01db.jpgWhat is "BioArt"?Speech: What is "BioArt"? --- Introduction: A Revolution of "Hybridization" Hello everyone! Before we begin, I’d like you to do a quick word association: when you hear “art,” what comes to mind? Canvases, sculptures, art galleries? And when you hear “biology”? Microscopes, DNA, lab mice? Now, what if I told you about an artist who doesn't paint or sculpt. Instead, he works in a lab, cultivating a permanent "skin sample" made from his own cells as a piece of art... What's your first reaction? Is it “That counts as art?” or “This guy knows his biology!”? This is exactly what I want to talk to you about today—BioArt. It’s not some obscure futuristic discipline; it’s a reality happening right now. At its core, it is a "super hybrid" of art, biology, technology, ethics, and even philosophy. Part 1: It’s Not a "Discipline"; It’s a "Demand" Today, many art academies teach "Sci-Tech Art" as a discipline, and "BioArt" is one of its most important branches. Many people, especially students within our art academy system, often ask: What kind of discipline is BioArt? What should it focus on? Is it a new branch under the arts, or an applied science of biology? My perspective might be a bit rebellious: it’s not even a "discipline"—it’s a powerful "demand." Let’s take a quick look back at history. The early forms of BioArt can be traced back to the early 20th century, but let me give you a more concrete example: How do we clear landmines left after a war? Do we send soldiers to clear them one by one? So, one day, artists and scientists sat down together. They came up with an idea: Could we get plants to do this for us? Thus, the "The Mine Flower" project was born. Using genetic modification, Thale Cress (a small plant) was engineered to react to explosive compounds in the soil by changing color when it blooms. This moved beyond theoretical lab work into a project actually tested in conflict-affected areas. Look at this process. What did i...https://static.igem.org/peertube/streaming-playlists/hls/e504f982-e817-4f58-9c16-e6597fee7d88/6ab0df77-ea3f-48e4-afd6-f97efd2d9434-master.m3u8https://video.igem.org/videos/embed/uhfV5VHV1XGodPTatfPMfQ505082025-11-10T23:32:37.429ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/xqUw7MgMP97W2eGK2mjSrjhttps://video.igem.org/lazy-static/thumbnails/ca705f32-74a6-4cb7-87e6-3c331badc507.jpgBio x Art x DesignSynthetic Biology has borrowed extensively from the field of engineering, but it is becoming increasingly integrated with the creative fields of art and design. Art and design have shown to be important not only for engagement, communications and discourse, but their fundamental principles and perspectives can greatly enhance problem solving in Synthetic Biology. This talk will briefly cover the current state of bioart and biodesign, and how it benefits the field and community of synthetic biology on a whole.https://static.igem.org/peertube/streaming-playlists/hls/fe8583dc-6645-494f-8071-15a6a51ec834/129a003a-7172-4124-8a42-ad6b88d2c7be-master.m3u8https://video.igem.org/videos/embed/xqUw7MgMP97W2eGK2mjSrj573072025-11-10T23:37:54.422ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mrbQWwpzJYHcZB3icy29tuhttps://video.igem.org/lazy-static/thumbnails/9176c30f-500a-4811-bf9a-325ba2564a7f.jpgArt as a Medium for ScienceLow scientific literacy comes at a high cost to our local and global community. Science is historically intimidating, due to its rigour, extensivity, and extremes. There are a lot of numbers, diagrams, and complex terms that sometimes all sound the same. We are bombarded with misinformation, causing confusion and misunderstanding. All of these factors and more can act as barriers to literacy. By altering how we approach scientific literacy we help to alleviate the stigma that prevents many of the general public from engaging with issues such as the Climate Crisis. Our team, AshBloom, aimed to decrease these barriers through artistic media. Our team wrote and illustrated a picture book, handmade recycled paper bookmarks, made beading kits, and created a digital game accessible through our Wiki. In this stage talk, we intend to explore the interconnectedness of art and science, and how to foster scientific literacy through creative expression.https://static.igem.org/peertube/streaming-playlists/hls/a57b0cd8-4d34-47eb-8896-92d7451c59a2/b19f2bc2-e83d-49a9-9eea-73abd1f732da-master.m3u8https://video.igem.org/videos/embed/mrbQWwpzJYHcZB3icy29tu562032025-11-10T23:41:36.528ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/89c5AN1puU9MDb5urrDMXRhttps://video.igem.org/lazy-static/thumbnails/edfe3846-f982-4503-b898-9fb577744526.jpgTextile Fighters - An Integrated Enzymatic Route to Degrade PET in TextilesOur project aims to address the recycling challenge of PET in textiles through enzymatic degradation. We engineered the recombinant enzyme Thermobifida fusca cutinase (TfCut2), expressed in Escherichia coli BL21. Guided by rational mutagenesis and machine learning approaches, we engineered and evaluated six TfCut2 variants with the potential for enhanced degradation performance compared to the wildtype. To improve accessibility of the textile substrate, we apply mechanical disintegration and chemical pre-treatment, followed by enzymatic treatment using cellulases for the cotton fraction and TfCut2 variants for PET. Ultimately, the process seeks to degrade blended textiles into the monomer terephthalic acid (TPA), which can then be repolymerized into PET textiles, enabling closed-loop recycling for sustainable management.https://static.igem.org/peertube/streaming-playlists/hls/39d4bfa7-485a-467d-a334-dee0325ffff3/249b8c17-1c05-48ca-b4ca-a65418a30696-master.m3u8https://video.igem.org/videos/embed/89c5AN1puU9MDb5urrDMXR13150152025-11-11T00:12:22.648ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cakkezbPDtLxuY8KpVCZoxhttps://video.igem.org/lazy-static/thumbnails/0f9216e2-f1aa-4cb8-a7bd-af011616b12a.jpgEngineered Biocatalytic Platform for Sustainable Textile DyeingThe textile dyeing industry relies heavily on synthetic dyes, which generate toxic effluents and pose serious environmental and health risks. While bio-enzymatic dyes represent a sustainable alternative, their industrial use has been limited by unstable color output and narrow chromatic range. Inspired by the ecological tradition of Xiangyunsha silk dyeing, we developed an innovative biocatalytic platform based on a engineered fusion of tyrosinase and a self-assembling scaffold protein. This system forms reusable enzymatic “nanofactories” that convert tyrosine derivatives into non-toxic, melanin-inspired pigments, yielding a broad spectrum of colors from browns to reds. The immobilized enzyme demonstrates excellent operational stability over multiple cycles, drastically cutting water consumption and eliminating the need for heavy metal mordants. By merging synthetic biology with green chemistry, EnzColor offers a scalable, eco-friendly, and ethical pathway toward a circular textile economy.https://static.igem.org/peertube/streaming-playlists/hls/5a6221fa-3aea-4e8d-9668-9ac0b505b7af/59ac5b91-1238-427f-9750-878c9d1f9864-master.m3u8https://video.igem.org/videos/embed/cakkezbPDtLxuY8KpVCZox496002025-11-10T23:42:40.527ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5f2vkPDKhpkKskWai5jNdohttps://video.igem.org/lazy-static/thumbnails/a8290560-7801-4fc1-ac00-30b48b584024.jpgPHA: A Sustainable Solution to Plastic PollutionAs a biodegradable polymer synthesized through microbial fermentation, PHA offers a viable alternative to traditional plastics derived from fossil fuels. PHA can be completely degraded within weeks to months in various environments, such as soil, seawater, and compost, without leaving any harmful residues. With advancements in production technologies, such as the use of renewable raw materials (e.g., vegetable oil) and achieving high carbon conversion rates, polyhydroxyalkanoates (PHA) are expected to significantly reduce plastic waste and carbon footprint. This presentation aims to discuss the transformative potential of polyhydroxyalkanoates (PHA) in addressing the global plastic pollution crisis.https://static.igem.org/peertube/streaming-playlists/hls/2259e53c-cda1-4bdf-b5ef-1457553e1436/b394106f-7123-45a7-8020-af0514f11d2d-master.m3u8https://video.igem.org/videos/embed/5f2vkPDKhpkKskWai5jNdo381062025-11-10T23:42:52.525ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/no2Asg6YQnaUATuzSf6cABhttps://video.igem.org/lazy-static/thumbnails/9477a398-22fa-40fd-8840-45a8e067f259.jpgWhat’s Stopping Us from Growing Everything?From therapeutics to living materials, biomanufacturing underpins most applications of synthetic biology. As iGEMers, we imagine a future where we grow products from renewable feedstocks instead of fossil carbon—but what will it take to get there? This talk introduces the iGEM Biomanufacturing Village Council, which maps progress and challenges across academia, industry, and other stakeholders. We offer a first glimpse of where we stand and what has to be done next to make a real impact on our shared goal of growing everything. https://static.igem.org/peertube/streaming-playlists/hls/ad2341d4-4658-423c-8acf-4237fb2ece8b/9ea9ae16-33bc-4954-a842-4ff796451f2b-master.m3u8https://video.igem.org/videos/embed/no2Asg6YQnaUATuzSf6cAB841002025-11-10T19:32:24.345ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/aHY1zVibe2hSBGVqTj4b1Chttps://video.igem.org/lazy-static/thumbnails/29428007-946b-4567-a86d-71f084b51290.jpgSustainable Use of Synthetically Produced Antibodies for Cancer TreatmentSUSPACT advances sustainable antibody production by engineering Chlamydomonas reinhardtii to express a humanized Cetuximab single-chain variable fragment (HumcetFv). The fragment retains high EGFR-binding specificity while reducing immunogenicity, offering a cost-efficient and eco-friendly alternative to mammalian expression systems. To achieve this, the team created organism-specific DNA parts optimized for Chlamydomonas codon usage, secretion, and post-translational modifications, establishing a foundation for future antibody and protein production on this platform. Valuable insight from bioreactor experiments opened up possibilities for industrial scale production volumes. Beyond research, the team actively engaged in education and outreach through workshops, school visits, public events, collaborations, and media contributions, while also developing creative learning tools like a scientific card game. Together, these efforts highlight both the technical innovation and societal impact of the project, positioning Chlamydomonas as a versatile platform for sustainable biomanufacturing.https://static.igem.org/peertube/streaming-playlists/hls/4ebe428c-13dc-4105-a8c3-a4c5fcfebc84/b8a49b49-5293-4f7c-99bb-4567923dc543-master.m3u8https://video.igem.org/videos/embed/aHY1zVibe2hSBGVqTj4b1C515002025-11-10T23:51:08.611ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/oGVzmiqduz9sEzWymcgKNahttps://video.igem.org/lazy-static/thumbnails/576f751e-97ed-407e-a2a3-041069d0ffe9.jpgGreen Pest Control Revolution: A Mosquito and Bed Bug Control SolutionAgainst the backdrop of growing pesticide resistance, environmental harm, and escalating public health risks posed by chemical insecticides targeting mosquitoes and bed bugs, our project presents an innovative and sustainable solution: engineering Escherichia coli through genetic modification to biosynthesize citronellal, a naturally derived compound with potent insect-repellent and insecticidal properties. We have constructed a complete metabolic pathway in E. coli to achieve efficient production of citronellal. This solution overcomes key limitations of existing methods: unlike chemical pesticides that exhibit mammalian toxicity and ecological risks, citronellal has low toxicity to humans and is readily biodegradable. It offers a green alternative for managing vector-borne diseases and household pests, while demonstrating the potential of synthetic biology to transform pest control into a sustainable practice.https://static.igem.org/peertube/streaming-playlists/hls/b7dfd16e-20bd-42cc-8b04-cfd8e29a9c09/0fdc7b12-832f-4b84-839b-eb6196531b0e-master.m3u8https://video.igem.org/videos/embed/oGVzmiqduz9sEzWymcgKNa614032025-11-10T23:53:12.353ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/jRKqGy46PPhd9TrfoohEA1https://video.igem.org/lazy-static/thumbnails/da0e2cbc-1972-44c5-b0a2-261e55359e11.jpgResearch on the Application and Combined Effects of Papain Isoenzymes in Skincare ProductsOur project aims to enhance skincare formulations through the utilization of isoenzymes derived from papain, a cysteine protease renowned for its gentle exfoliating and moisturizing properties. Our research focused on identifying papain isoenzymes that exhibit optimal activity across diverse skin types and pH conditions. Ultimately, five cysteine proteases were chosen for their promising suitability in skincare applications: those derived from Abrus precatorius, Actinidia eriantha, Cicer arietinum, Cajanus cajan, and papain itself. These enzymes are expected to act synergistically to enhance the efficacy, stability, and safety of enzymatic skincare products.https://static.igem.org/peertube/streaming-playlists/hls/98b6b3e6-bc5a-43b7-a74e-ec71143cf9ac/17fbd26d-5c15-48d2-a869-558037594579-master.m3u8https://video.igem.org/videos/embed/jRKqGy46PPhd9TrfoohEA1575002025-11-10T23:55:02.456ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/bJLZhTmvsQpjB5uqk16Vochttps://video.igem.org/lazy-static/thumbnails/ddf48a8a-da8e-4c69-b2d0-d512d3706a4c.jpgTCM Pulse Diagnosis: Bridging Tradition & Synthetic BiologyFrom pulse-based diagnosis in Huangdi Neijing to ISO international certification, TCM pulse diagnosis is a crystallization of millennia-old wisdom. This talk spotlights this cultural treasure, sharing how we integrate its "syndrome differentiation" logic into iGEM yeast system design—using synthetic biology to interpret tradition and empower tech innovation with culture.https://static.igem.org/peertube/streaming-playlists/hls/56f45982-3760-410a-a53f-6a260701a923/d70a727d-0e7b-4223-8e2e-efef3aa62669-master.m3u8https://video.igem.org/videos/embed/bJLZhTmvsQpjB5uqk16Voc582072025-11-10T23:57:26.597ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7Ar6cuyJVgXNdCDeixD65Uhttps://video.igem.org/lazy-static/thumbnails/f2a6a832-d9c6-4f3e-8392-9340e063faca.jpgSALTY: Salt-Activated TYDVDengue remains a major global health burden, with limited vaccine access in endemic regions. Our team, iGEM UGM 2025, developed SALTY, a plant-based expression system to produce a subunit dengue vaccine (DENV-2 EDIII) in Nicotiana tabacum. By combining a salt-inducible promoter with a TYDV-based replicon, SALTY enables scalable, cost-effective transient expression of vaccine proteins in plants. In this talk, we will discuss how SALTY addresses the dual challenge of affordability and accessibility in vaccine production, highlight the scientific rationale for using Nicotiana as a green bioreactor, and present the novelty of our inducible system. Beyond the technical side, we will reflect on our journey as students navigating synthetic biology. Human Practices has been central in shaping SALTY, from podcasts, storybooks, multilingual posters, and card games to school outreach, workshops, biosecurity meetups, and pharmacoeconomics studies, ensuring our work connects science, society, and global health impact.https://static.igem.org/peertube/streaming-playlists/hls/35659509-114e-489a-aab9-8d4cb89880e8/8ff3d006-1393-4221-bbf8-caa9c520ff30-master.m3u8https://video.igem.org/videos/embed/7Ar6cuyJVgXNdCDeixD65U567032025-11-10T23:58:33.701ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/wwCmbEKezWpWzKN4CRaq13https://video.igem.org/lazy-static/thumbnails/eb2437d8-2034-402d-b972-d7d1ec3cdcb0.jpgA High-Yield Plectasin Yeast Cell Factory: Constructing Efficient Plectasin-Producing P. PastorisAntimicrobial peptides (AMPs) are naturally occurring defense molecules with broad-spectrum antimicrobial activity, low resistance induction, and high stability. Plectasin, a fungal AMP, effectively inhibits Gram-positive bacteria and is used in feed additives. Current production methods such as extraction and chemical synthesis remain limited by low yield and high cost. Genetically engineered microorganisms offer a promising alternative, enabling scalable, cost-effective AMP production with tailored design. The yeast Pichia pastorisis a particularly suitable host due to its safety, efficient secretion machinery, and simple cultivation. In this study, we engineer P. pastorisby integrating the plectasin NZ2114 gene and optimizing regulatory elements to generate a high-yield strain, thereby facilitating its commercial-scale production.https://static.igem.org/peertube/streaming-playlists/hls/f738df86-bf70-42b7-b99c-220c5b9d7c1a/41fff292-20fd-452d-ad42-eac027a295f1-master.m3u8https://video.igem.org/videos/embed/wwCmbEKezWpWzKN4CRaq13423002025-11-10T23:59:51.160ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/2YkvdAavsmAwR9Z3MQK1mUhttps://video.igem.org/lazy-static/thumbnails/6682d7cc-2ba6-4579-805e-2993233d44f9.jpgTemperature-Controlled One-Step Synthesis of Colored Bacterial CelluloseThe textile industry, as an important sector of fashion industry, is the second largest pollution source in the world. Traditional textile manufacturing processes, which separate fiber production from dyeing, are highly water-intensive and incompatible with the principles of sustainable fashion. To address these challenges, our project developed an integrated system for bacterial cellulose weaving and dyeing using E.coli. We have achieved one-step synthesis of colored bacterial cellulose through temperature regulation. This project aims to overcome the limitations of bacterial cellulose expressed in E.coli and endow it with hydrophobic properties. It provides a solution for the fashion industry that integrates functional aesthetics with environmentally friendly choices.https://static.igem.org/peertube/streaming-playlists/hls/0ff6cf34-1110-4a71-bcdb-586a56e15694/3344ccd6-d36e-40a7-addd-735af0748aeb-master.m3u8https://video.igem.org/videos/embed/2YkvdAavsmAwR9Z3MQK1mU557072025-11-11T00:04:24.836ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4tqkpFvCN3d1drVAKMgzPehttps://video.igem.org/lazy-static/thumbnails/fd3d6576-7610-49a4-9909-59a40c3f23d8.jpgEnzyCapsDigestive health disorders affect millions worldwide, posing a major public health challenge. While digestive enzyme supplements offer temporary relief, they are often unsustainable, unscalable, and may trigger allergenicity. To address this, we developed EnzyCaps—a biomanufacturing platform that uses bacterial microcompartments (BMCs) within recombinant E. coli to produce and encapsulate digestive enzymes. Our system integrates three key features: a tightly inducible promoter for precise gene regulation, BMC-based compartmentalization, and peptide tags for targeted enzyme encapsulation. This living micro-factory enables modular, tunable, and sustainable enzyme production, overcoming limitations of traditional plant- or animal-based sources. EnzyCaps represents a step forward in sustainable synthetic biology, combining stability, efficiency, and scalability for improved digestive wellness and energy enhancement.https://static.igem.org/peertube/streaming-playlists/hls/1c1f7e98-991c-4619-a4c0-bae6616be45f/6a72f9c7-faed-4d34-b1d8-41bed14a8ce2-master.m3u8https://video.igem.org/videos/embed/4tqkpFvCN3d1drVAKMgzPe637042025-11-11T00:15:43.279ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5Z5JToi9QoifkMxdgsB59Nhttps://video.igem.org/lazy-static/thumbnails/48b63ae8-b8e9-4d18-aaf8-05dfc0e303bd.jpgO-SAGE: Can You Help Me?Need multiple genes mutated? Lacking time and money? Try out our new homemade MAGE system! Built by motivated home cooks, this new platform can answer all your mutation dreams!https://static.igem.org/peertube/streaming-playlists/hls/285cdecb-c5a7-442d-99b6-0045a6866d86/4ffff7f9-4a72-4a31-a4b2-17c472470f8b-master.m3u8https://video.igem.org/videos/embed/5Z5JToi9QoifkMxdgsB59N568042025-11-11T00:12:45.989ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/f2z48kB9ekGFGHRPPiw6V9https://video.igem.org/lazy-static/thumbnails/f5a7eb5f-f786-45cb-9cf6-d1e2c4588bda.jpgV-CHARGEs: VLP-Coupled High-efficiency ATP Re-Generating Enzyme SystemATP is essential for biosynthetic reactions but costly for large-scale applications. Polyphosphate kinase (PPK) can regenerate ATP from inexpensive polyphosphate (PolyP), yet its industrial use is limited by phosphate inhibition and poor stability. The BNU iGEM team developed V-CHARGEs (VLP-Coupled High-efficiency ATP Re-Generating Enzyme system), an innovative platform that integrates SlPPK with P22 virus-like particles (VLPs) and SpyTag/SpyCatcher coupling to achieve efficient ATP regeneration. By encapsulating SlPPK inside VLPs for protection and anchoring ATP-consuming enzymes outside, V-CHARGEs enables continuous ATP cycling with enhanced pH, portease and phosphate tolerance. This nanoconfined system provides a low-cost, stable, and modular solution for powering diverse ATP-dependent biosynthetic reactions, advancing sustainable biomanufacturing.https://static.igem.org/peertube/streaming-playlists/hls/71980e21-c66c-4367-85a0-1066038e821e/d093c32f-a900-4822-a2fd-3bf3b9fe6f0e-master.m3u8https://video.igem.org/videos/embed/f2z48kB9ekGFGHRPPiw6V96380282025-11-11T00:18:10.421ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8kK1SijggbsfEr7EYf1gcmhttps://video.igem.org/lazy-static/thumbnails/0c20c06c-105f-4f25-8d33-ba6ade0fb807.jpgKUN PENG-The Guardian of Beauty in Cold ConditionsCold weather often poses significant challenges to beauty and fashion—from skincare products freezing solid outdoors to concealed door handles becoming stubbornly stuck. Inspired by the freeze-resistance strategies of polar organisms and traditional Chinese culture, the Tianjin team "KUNPENG - The Guardian of Beauty in Cold Conditions" has developed a novel solution. Leveraging synthetic biology and computational modeling, they designed an "Antifreeze Protein-Trehalose Synergistic Defense System." We displayed Antifreeze Protein(AFP) extracellularly via a yeast surface display system. Computational models were then employed to optimize the performance of these proteins and to design novel AFP variants. Through the screening strategy, we identified the trehalose pathway as critical for enhancing yeast frost resistance. Finally, we integrated these elements into a single system, achieving combined intracellular and extracellular frost resistance. The team's ultimate goal is to integrate this system into cosmetic formulations.https://static.igem.org/peertube/streaming-playlists/hls/3b719c74-b7bb-4250-b50f-60e02cef430e/e35367fb-142b-4b9f-9929-49b142ee8a85-master.m3u8https://video.igem.org/videos/embed/8kK1SijggbsfEr7EYf1gcm470022025-11-11T00:14:42.535ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/rpjvzjJ3WboXi4NiVHcDvxhttps://video.igem.org/lazy-static/thumbnails/38318e31-51cb-45b2-9835-f26e9ad026f9.jpgThe Biohybridization ProcessThe round table employs the idea of discussing the limits of synthetic biology now, and how interdisciplinary thinking can merge different engineering fields through projects that blend their qualities to achieve and build over time, a world that moves towards a more biological system of designing. To advance and achieve some speculative ideas that we aim for, the blending with different areas is inevitable, and it only depends on how and what we’ll be producing that will guide us through.https://static.igem.org/peertube/streaming-playlists/hls/cdb5faf7-da40-42d7-a6d1-fd6ea929348d/b49d8705-7d34-4279-ad37-4cd60fc83e30-master.m3u8https://video.igem.org/videos/embed/rpjvzjJ3WboXi4NiVHcDvx1818002025-11-10T19:51:59.889ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/fU1rRftiWeWLzGqJAdJvqVhttps://video.igem.org/lazy-static/thumbnails/8646e62e-4da1-4be0-9556-e00a5ac1eaff.jpgVesper: Engineering a Bioluminescent and Aromatic Yeast for Sleep and Mood RegulationModern society faces a pervasive sleep and mental health crisis, with conventional solutions often being inadequate or accompanied by side effects. Our project, Vesper, harnesses the power of synthetic biology to create a natural, non-habit-forming alternative. We engineered two distinct Saccharomyces cerevisiae strains: one capable of autonomous, gentle bioluminescence through an optimized fungal caffeic acid pathway, and another producing a spectrum of therapeutic terpenoid aromas like linalool and citronellol. These strains are designed to work in synergy within a personal sleep device, the Bio-Pod, delivering multi-sensory therapy. Our human-centered design, informed by extensive human practices, is complemented by a built-in dual-layer suicide switch for robust biocontainment. Vesper offers a holistic approach to wellness, reconnecting users with the restorative power of nature through engineered biology.https://static.igem.org/peertube/streaming-playlists/hls/78a2e455-f4f0-44ed-95ba-ce8c2916ddc9/342be3b0-b99f-4a15-acf4-78b5776136b5-master.m3u8https://video.igem.org/videos/embed/fU1rRftiWeWLzGqJAdJvqV637032025-11-11T00:19:33.049ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mCmGR4Kwwkv6gVKScBLqXZhttps://video.igem.org/lazy-static/thumbnails/fb67df28-63b2-4e98-9187-649e3ac401f3.jpgPGASO IntroductionOur laboratory has developed a synthetic biology platform for Kluyveromyces marxianus called PGASO (Promoter-based Gene Assembly and Simultaneous Overexpression). This technology enables sequential homologous recombination and multi-gene expression in the genome by utilizing specific upstream sequences located at the 5′ end of promoters.https://static.igem.org/peertube/streaming-playlists/hls/a70a4ef0-c398-46a8-b74a-07667dda80ff/b3b978eb-2e5f-46e1-bbb8-c0b7325d32af-master.m3u8https://video.igem.org/videos/embed/mCmGR4Kwwkv6gVKScBLqXZ340002025-11-11T00:17:08.498ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/2csAnbVLkuV1gQMq1FBJ4qhttps://video.igem.org/lazy-static/thumbnails/90cd2206-adbf-4cc9-bfa8-f5b71222b3f2.jpgRock The PlasticsMicroplastics are increasingly widespread. Jambeck et al. find that 5 to 12 million tons of plastic pollute the ocean annually. Plastics put into landfills degrade into microplastics that leach into the environment. These microplastics travel up the food chain, with the average person eating, drinking, or breathing between 78,000 and 211,000 microplastic particles every year. At the same time, the U.S. Geological Survey reports that 1 billion tons of limestone are quarried yearly in the United States alone. Our team addresses both of these issues by engineering E. coli to co-express plastic-binding curli fibers and a biomineralization pathway, effectively capturing microplastics in in situ limestone formations. We are using microbially induced calcite precipitation (MICP) for biomineralization, investigating a carbonic anhydrase pathway and a urease pathway. The resulting product of our engineered E. coli can immobilize microplastics while replacing non-renewable resources like sand for construction and backfilling projects.https://static.igem.org/peertube/streaming-playlists/hls/09b2b556-045e-47ee-bbcb-f1dea5c30616/d5e2ddb3-f706-490e-857c-e4a888492dac-master.m3u8https://video.igem.org/videos/embed/2csAnbVLkuV1gQMq1FBJ4q5840182025-11-11T00:21:42.294ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/93KsbZU76aKh8dthsbEvtThttps://video.igem.org/lazy-static/thumbnails/be897d18-6ab3-4198-aa02-595918be3ff1.jpgCardioGuard: Dual-System Biosynthesis of Leonurine for Cardiovascular and Cerebrovascular ProtectionCardiovascular and cerebrovascular diseases claim over 17 million lives annually, accounting for 32% of global deaths (WHO, 2019). Leonurine, an alkaloid from Leonurus japonicus, shows preclinical protective effects by reducing oxidative stress, improving circulation, and inhibiting platelet aggregation. To enable sustainable production, we established a dual-platform biosynthesis strategy in Escherichia coli and Nicotiana tabacum hairy root systems. Both platforms heterologously express the final two pathway enzymes, LjUGT5 and LjSCPL, enabling conversion of the supplemented precursors sinapic acid (SA) and 4-guanidinobutanol into leonurine. We compare yield and cost efficiency across systems to identify an optimal, scalable route, providing a stable source of leonurine for cardiovascular protection.https://static.igem.org/peertube/streaming-playlists/hls/412b5ff1-fba5-4e98-992c-9d83dbce43b5/ec659be5-3026-4d17-a19a-f443ab84ebdb-master.m3u8https://video.igem.org/videos/embed/93KsbZU76aKh8dthsbEvtT648002025-11-11T00:29:56.365ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/aYfYGBHQMwjuqdWJ1B44hxhttps://video.igem.org/lazy-static/thumbnails/b45e0eab-cacd-4d18-952c-708b549d999a.jpgWhen Synthetic Biology Leaves the Lab: Challenges of Industrial TranslationOur project uses Saccharomyces cerevisiae as a chassis, converting glycerol and fatty acids into ginsenoside Ro. This work is not only academically valuable but also closely tied to the industrial background of biomanufacturing. Yet moving from lab success to industry reveals deep challenges. Technically, yield and stability remain low, scale-up is uncertain, and purification is extremely costly—Ro’s complex structure makes separation from similar metabolites difficult. Economically, high downstream costs may erase any savings from fermentation, limiting competitiveness against plant extraction. Market acceptance is also unclear: will consumers trust “microbially produced” ginsenosides? Regulatory hurdles further complicate the path: agencies demand high purity, but robust purification is not yet available, and fragmented patents could raise licensing costs. We hope to use this Stage Talk to ask: how can early research integrate industrial feasibility? How can science, industry, and society co-design solutions? Bridging this gap is essential for synthetic biology’s future.https://static.igem.org/peertube/streaming-playlists/hls/50bd211b-a828-4d71-9a8f-11e069e73c53/72a05d84-cb51-4aac-a52e-ccb838ee4e9d-master.m3u8https://video.igem.org/videos/embed/aYfYGBHQMwjuqdWJ1B44hx6090132025-11-11T00:30:32.198ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/n3gVpDLtvDk9XrCadF3NsBhttps://video.igem.org/lazy-static/thumbnails/3daa46f3-6753-4f43-9118-ae4425467356.jpgNPM Zero, Transforming the World With Photosynthetic Hydrogen Production MethodThe overreliance on fossil fuels (non-renewable) will lead to energy depletion, air pollution, and more problems. The HKU iGEM team aims to address this problem by developing a new method for producing renewable energy, specifically hydrogen fuel, to combat this situation. By engineering a photosynthetic pathway in E. coli, we create clean hydrogen fuel for the world using biological pathways.https://static.igem.org/peertube/streaming-playlists/hls/aa613601-36e4-4928-ab8a-1c8b614bc0ff/3f23f1f0-c13f-430e-a69a-88f36d08953f-master.m3u8https://video.igem.org/videos/embed/n3gVpDLtvDk9XrCadF3NsB6020112025-11-11T00:29:40.586ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/xy9nDwrKbD8cMchebbcHzYhttps://video.igem.org/lazy-static/thumbnails/87068f5f-39d3-4545-8727-40683abd8eb1.jpgSTREAMlining Bioproduction: Affordable Tools for InnovationImproving the accessibility of hardware to iGEM teams and smaller research groups by decreasing the costs is a crucial step in democratizing science. Bioproduction has enormous potential, but one of its main barriers is cost. Commercial chemostats often retail at over €17,000, which puts them out of reach for most community laboratories and student teams. To address this, we have developed a fully functional chemostat for less than €6,000. We provide a modular, sustainable and reproducible system, making it a practical and affordable option for small working volumes. In this talk, we will share our journey from concept to implementation, including the electrical setup and software. We will cover the overall system architecture, the step-by-step construction process, the integration of probes and sensors as well as discuss the control strategy that ensures stable operation. STREAM demonstrates how accessible engineering can empower innovation in bioproductionhttps://static.igem.org/peertube/streaming-playlists/hls/ff884260-5116-4ed2-9d8c-62472a11a74e/f63b6143-a20f-42a3-95ec-d0551d0573ef-master.m3u8https://video.igem.org/videos/embed/xy9nDwrKbD8cMchebbcHzY609002025-11-11T00:33:40.035ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5c6WJJzbExXaqb3cbAHdNyhttps://video.igem.org/lazy-static/thumbnails/a49671aa-412f-4817-929c-fb4940db1c4f.jpgMicrobial Biosynthesis of Triterpenoid Ambrein Using Engineered Escherichia coliAmbergris, a rare fragrance fixative produced in the digestive tract of sperm whales (Physeter macrocephalus), is highly valued in perfumery but raises ethical and environmental concerns due to its scarcity and link to illegal trade. To address this, Team VIT-Vellore aims to biosynthesize ambrein, the key triterpenoid component of ambergris, using engineered Escherichia coli. By integrating squalene synthase, squalene-hopene cyclase, and tetraprenyl β-curcumene cyclase into the MEP pathway, our system converts farnesyl pyrophosphate (FPP) into ambrein through a renewable, controlled process. This bio-based approach provides an ethical, consistent, and eco-friendly alternative to whale-derived ambergris. Aligned with UN SDGs 12, 14, 4, and 17, our project fosters responsible innovation, marine conservation, education, and inclusivity. Through open-access learning and interdisciplinary collaboration, VIT-Vellore envisions a future where biotechnology unites sustainability, ethics, and creativity to transform the fragrance industry.https://static.igem.org/peertube/streaming-playlists/hls/21f16629-5aea-4827-a33f-fd345cb68cc4/fd905ece-c0af-48e1-84e2-c0d25048bfd7-master.m3u8https://video.igem.org/videos/embed/5c6WJJzbExXaqb3cbAHdNy6485302025-11-11T00:35:41.881ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mre9jSXkjw7PVJj7qssoCBhttps://video.igem.org/lazy-static/thumbnails/cfdfad77-7831-4aed-a592-0b681686ad0a.jpgThe Zero Plastic League: Engineering the End of Plastic WasteClimate change is one of the pressing global issues that urgently require a change in our lifestyles and a shift in the way we think and act. Education is the key to foster individuals to internalize sustainability values and implement in their daily lives. In 2022, a student-led environmental organization called “Zero Plastic League (ZPL)” is initiated to use innovative technologies and citizen science to educate the public to take action in order to address the plastic pollution problem. Join us and see how the Zero Plastic League is activating change!https://static.igem.org/peertube/streaming-playlists/hls/a57c77aa-8949-418c-8b63-c24785eb2693/01030828-ad3f-4e4d-ab01-e40553729cb4-master.m3u8https://video.igem.org/videos/embed/mre9jSXkjw7PVJj7qssoCB587032025-11-11T00:34:47.334ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/jggbGkzayPxGwuD8sytWvohttps://video.igem.org/lazy-static/thumbnails/47e03058-1950-4d72-b795-8047e98279b6.jpgColors from Bacteria: Production of Natural Dyes with Synthetic BiologySynthetic dyes are widely used in the textile industry but generate toxic effluents that cause serious environmental pollution. Our project seeks to provide a sustainable alternative by engineering Escherichia coli to biosynthesize several natural pigments, carotenoids (red, orange), violaceins (ranging from green to purple), and indigo (blue). We focus on optimizing tryptophan metabolism to efficiently channel precursors toward pigment biosynthesis, ensuring higher yields and consistent production. For indigo, we are also exploring novel flavin monooxygenases with enhanced catalytic activity and stability, aiming to overcome the limitations of existing enzymes. Through a combination of metabolic pathway engineering and enzyme discovery, we aim to create a robust microbial production platform capable of replacing harmful synthetic dye processes. By demonstrating the potential of microbial biosynthesis for natural dyes in E. coli, this project highlights synthetic biology’s ability to address environmental challenges and proposes an eco-friendly approach for the future of textile dyeing.https://static.igem.org/peertube/streaming-playlists/hls/93e60299-4d20-49a9-be89-c3aa9c2102f8/378e1b22-de81-4fe6-b45a-6564a82a6d29-master.m3u8https://video.igem.org/videos/embed/jggbGkzayPxGwuD8sytWvo6140112025-11-11T00:37:13.612ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/35ZqLyVmMfDJXEA8pXZG2Mhttps://video.igem.org/lazy-static/thumbnails/06972abe-33ab-40df-ae2e-3a4f083c972c.jpgThe Bed Bug Epidemic in Hong Kong: A Proactive SolutionInspired by the human impact of Hong Kong's bed bug crisis, our research identified significant barriers to treatment: high costs for residents and limited institutional support. This drove us to develop an accessible, preventative solution to empower communities. Our project investigates L-lactate as a chemoattractant for the preemptive detection of bed bug infestations, enabling early intervention and decontamination. To ensure a sustainable and low-cost supply of this attractant, we developed a microbial production platform by genetically modifying E. coli to synthesize L-lactate. This approach aims to bypass the financial and systemic hurdles that prevent effective bed bug control.https://static.igem.org/peertube/streaming-playlists/hls/10e4a4a0-59b1-4df1-8d5e-11d10dd1bd7f/96c6744f-a719-4b57-8b6b-e9793e15a628-master.m3u8https://video.igem.org/videos/embed/35ZqLyVmMfDJXEA8pXZG2M521042025-11-11T00:38:25.066ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/dcv6GHtGs4hz48y8yH8yKHhttps://video.igem.org/lazy-static/thumbnails/d0aef4d9-5248-4a88-bdb3-b15931b7bd55.jpgInkSightTattoos have long served as markers of identity and belonging. InkSight repurposes this historical medium for modern medicine as a platform comprising engineered mammalian cells encapsulated in a hydrogel matrix for intradermal delivery as a tattoo. This system enables the real-time, equipment-free detection of circulating biomarkers through direct interrogation of the interstitial fluid. The engineered cells express a Modular Extracellular Sensor Architecture (MESA) for target recognition, which triggers one of three engineered contrast-change mechanisms: expression, assembly, or agglomeration. This response is driven by synthetic melanin-producing compartments, specifically encapsulin nanocages that house tyrosinase to enable localized and safe melanin production, resulting in a visible shift in tattoo contrast. InkSight constitutes, to our knowledge, the first paradigm for a continuous, cell-based tattoo biosensor with a visible output, establishing a foundational platform for decentralized diagnostics and personalized medicine.https://static.igem.org/peertube/streaming-playlists/hls/62c8c721-df80-476a-b41c-1a55f9adb5cf/2711a240-3ae4-4ddf-9210-8465e85727ff-master.m3u8https://video.igem.org/videos/embed/dcv6GHtGs4hz48y8yH8yKH469082025-11-11T00:39:09.128ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/enhvQdgutFVZiozFodcALChttps://video.igem.org/lazy-static/thumbnails/e04b19e8-beea-47de-8505-65f009802432.jpgiGEM Arts Gallery WorkshopA thirty-minute workshop where iGEMers can learn and brainstorm ideas for bioart projects they could implement or produce with the intention of being more creative and disruptive through their careers. The participants will be exposed to artistic research, storytelling, and other creative methods used in the Arts Gallery project, get to know the artists, and so their projects surrounding the topic of “Vulnerability”.https://static.igem.org/peertube/streaming-playlists/hls/6c3f995c-8a74-45eb-a3b9-38388a4b9b5c/bf752af3-eaf6-4d72-bf6a-85f7bd64b84a-master.m3u8https://video.igem.org/videos/embed/enhvQdgutFVZiozFodcALC1506052025-11-10T19:45:03.932ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/xmNHY5KbFPStyuiQaqUQSqhttps://video.igem.org/lazy-static/thumbnails/ded11cd5-c9ca-4909-8a36-948c59ed5f59.jpgGRACE: Ginsenoside-Rh1 from Red Algae to Cosmetic EssenceWe developed an innovative, eco-friendly method to produce rare ginsenoside Rh1 using synthetic biology. By engineering yeast with metabolic pathways from red algae, we efficiently synthesize Rh1, avoiding the environmental harm and high costs of traditional plant extraction or chemical synthesis. This sustainable approach leverages abundant marine resources, ensuring high-quality, affordable skincare products like serums and acne patches. Our breakthrough paves the way for greener cosmetics and unlocks the potential of marine bioresources.https://static.igem.org/peertube/streaming-playlists/hls/fdf2f7e1-4968-4a63-8eed-01623f1334ec/3e576eaa-f732-4f8f-8d84-79d82fe43495-master.m3u8https://video.igem.org/videos/embed/xmNHY5KbFPStyuiQaqUQSq617012025-11-11T00:42:10.738ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/uHLHTddqW8rkurpncTWVCchttps://video.igem.org/lazy-static/thumbnails/de10e924-1181-410f-b108-84b89d21d8e1.jpgFLUversalInfluenza remains a major global health challenge, infecting up to 10% of the population annually and causing significant morbidity and mortality, especially among vulnerable groups. Current vaccines require yearly reformulation due to rapid viral mutation, often resulting in reduced effectiveness. Our iGEM project aims to design a universal influenza vaccine that targets the highly conserved HA2 region of the hemagglutinin protein.https://static.igem.org/peertube/streaming-playlists/hls/e894f023-132f-412e-851a-bc5783a416e7/e99ad1c0-2edd-40dc-9039-dd707e717cad-master.m3u8https://video.igem.org/videos/embed/uHLHTddqW8rkurpncTWVCc655022025-11-11T00:50:20.228ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kZde1ZVkQ7CqttXBTX5esvhttps://video.igem.org/lazy-static/thumbnails/9d87cbf8-1961-4bdc-8aa5-aff0d1047ace.jpgDOCTOR：Diagnostic Optimization & Chemical Treatment Of RhinosinusitisChronic rhinosinusitis (CRS) is a widespread yet underestimated disease that causes severe discomfort and lacks effective clinical solutions. To address challenges in early diagnosis and precise treatment, we focused on Granzyme K (GZMK), a key enzyme driving CRS progression. Centered on this target, we established an integrated diagnostic–therapeutic framework. A colloidal-gold rapid test strip enables early and accessible detection, while small-molecule inhibitors achieve precise enzymatic inhibition and inflammation control. In parallel, we developed two supporting technology platforms: Prometheus, for de novo protein design, and Nexus, for high-throughput affinity measurement. They enable efficient design and validation of high-affinity protein binders, contributing more powerful research tools to the field of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/a1da9021-1f18-4cd8-81b6-0a22af62cc05/47806228-8630-41a3-b778-9078ae3c6825-master.m3u8https://video.igem.org/videos/embed/kZde1ZVkQ7CqttXBTX5esv6110732025-11-11T00:48:43.024ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/6S4oze2tx6Nymx883HDdfshttps://video.igem.org/lazy-static/thumbnails/b50e0dc8-5515-4f9f-8bf6-4e3a72112716.jpgBottom-Up Human Practices: The Challenge of Doing Good Human Practices in Foundational Advance.iGEM HQ defines Human Practices as thoughtful engagement when applying synthetic biology to real-world issues. But what does this process look like when the order is flipped–when a tool comes first, and the real-world application second? Foundational Advance teams face unique challenges integrating Human Practices, often disconnected from a direct cause. Our team has identified this challenge and developed a deeply rooted human practices approach, branching into potential applications as well as our project as a whole. Through 50+ consultations across three diverse fields, along with pilot initiatives evaluating the ethics of our envisioned use cases, we believe we’ve developed a valuable platform for Foundational Advance Human Practices, encompassing the lessons and mistakes we’ve made along the way. In this stage talk, we’re excited to share our journey through integrated Human Practices in a field focused on expanding tools and start a larger conversation on responsible practices in SynBio research.https://static.igem.org/peertube/streaming-playlists/hls/2f7af870-1a37-426b-8061-f85f366147ce/07f7f1cb-0379-4b47-b855-49458cb95b90-master.m3u8https://video.igem.org/videos/embed/6S4oze2tx6Nymx883HDdfs5180362025-11-11T00:50:36.565ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/sxAKNQZZbQ9SsSQ3ZMfghGhttps://video.igem.org/lazy-static/thumbnails/82386c49-67e8-4a59-9c5b-66fd19f0d8f8.jpgWhat Do Lab Coats and Llamas Have in Common?During our project research, we talked to many experts on nanobodies, a small and powerful version of conventional antibodies. We think that nanobodies are incredibly cool and want to transport the knowledge we acquired in a way that everyone can appreciate them too. So we wrote and designed a childrens booklet about what nanobodies are, where they come from, and how they can be a solution to many different problems. In this talk, we want to share our journey in developing our booklet and learning about both nanobodies and science communication.https://static.igem.org/peertube/streaming-playlists/hls/d6f714ab-d996-4bc2-8edd-74a998d13604/1eaf295a-7de5-4e1e-86dd-4ccae6191f16-master.m3u8https://video.igem.org/videos/embed/sxAKNQZZbQ9SsSQ3ZMfghG514052025-11-11T00:52:16.320ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/d3YUU9mJu1AWWQ7WesnQHyhttps://video.igem.org/lazy-static/thumbnails/73866599-984b-402e-920f-81c3c06300b4.jpgTuneable Dream DriveTuneable Dream Drive: To address sleep disorders caused by circadian rhythm disruption during space missions, the JLU-CP team engineered a multi-layer regulatory melatonin synthesis system using Escherichia coli Nissle 1917 (EcN) as a chassis. This system integrates a red-light-controlled genetic circuit with the serine recombinase Bxb1, enabling reversible promoter inversion to switch between serotonin production and melatonin biosynthesis. A pharmacokinetic (PK) model optimized dosage under simulated microgravity, while deep-learning-driven enzyme engineering enhanced HsAANAT catalytic efficiency. We then built an expression model to predict melatonin yield under light conditions for controllable production. For biosafety, the design includes a hypoxia-activated toxin–antitoxin module and tryptophan-auxotrophic safeguard. Additionally, we developed iTutor, the most inclusive-iGEM LLM trained on iGEM Wiki, PubMed, and arXiv data, provides real-time computational and experimental guidance. This engineered probiotic functions as a gut-colonizing “biological clock calibrator,” enabling precise, red-light-induced melatonin release to support astronauts’ circadian health during spaceflight.https://static.igem.org/peertube/streaming-playlists/hls/61983989-c2a7-4d2d-97f3-aae8ac0e36b2/27a88913-5224-4245-ada7-336f66201253-master.m3u8https://video.igem.org/videos/embed/d3YUU9mJu1AWWQ7WesnQHy5860182025-11-11T00:54:16.412ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/fV2Y4HktppsDvsLPtKEyychttps://video.igem.org/lazy-static/thumbnails/1bdd5eb3-2c18-4788-ac9f-5a6d8fb5d054.jpgBridging Science and CommunityScientific research within a lab is essential, but community involvement is equally important. In this talk, we will share how our team built meaningful two-way conversations about science and climate issues with diverse audiences. From on students on campus to Austin locals to younger students at museums, we tailored our outreach to spark curiosity and dialogue about harmful algal blooms in freshwater systems. We will discuss the strategies we used to reach different communities, the lessons we learned about engagement, and how these conversations shaped our project. Finally, we will introduce our DNA-based sensor designed to detect harmful algal blooms and share safety tips for navigating these dangerous conditions.https://static.igem.org/peertube/streaming-playlists/hls/78c792b1-a318-4eb8-b071-b1804cf2db0b/73f87cd3-bf5e-4039-8ff3-eee0225d4635-master.m3u8https://video.igem.org/videos/embed/fV2Y4HktppsDvsLPtKEyyc482072025-11-11T00:54:31.370ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/dtyv8A3adLjYNh7NqNX6RMhttps://video.igem.org/lazy-static/thumbnails/f227aa25-0bb1-4679-99c9-dbe37d3f3c1d.jpgSplinteinThe lack of precise control over post-translational modifications in synthetic protein production is a significant obstacle in research and biomanufacturing, especially in the development of biopharmaceuticals. To overcome this we developed Self Integrating Scaffolds (SIS), protein fragments flanked by split inteins. This project aims to insert a glycosylated SIS in Immunoglobuline G. To optimise our SIS, it’s necessary to test how efficient two pairs of inteins can be used together. Because of that, we have designed a FRET assay, which enables us to test split intein pairs in high-throughput for their quantitative kinetic compatibility in real-time using only a plate reader. In addition, we applied dynamical modelling, docking simulations, structural comparisons, mathematical modelling and programming in R-studio to provide a more in-depth understanding of all these aspects regarding our SIS and FRET assay. Together, our results lay the foundation of using split inteins to change the world of protein engineering.https://static.igem.org/peertube/streaming-playlists/hls/6506c6a3-c455-47e9-90bf-dc9ff80735f3/04c877cf-9484-41fa-a887-8394a8085e09-master.m3u8https://video.igem.org/videos/embed/dtyv8A3adLjYNh7NqNX6RM544042025-11-11T00:56:06.393ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/w2ftTAvQadpCpn2dQ2UCgrhttps://video.igem.org/lazy-static/thumbnails/86b38ce6-66c2-41d7-ae77-437423fd051f.jpgReimagining Preventive Healthcare through Actor-Network TheoryThis talk explores how Actor-Network Theory (ANT) can illuminate the complex interplay of human practices in preventive healthcare, particularly within rapidly aging societies. Drawing from fieldwork with Indigenous cultural health stations, rural clinics, NGOs, and underserved island communities, I reveal how local narratives expose structural gaps in medical access. By comparing healthcare screening systems across developed and developing nations, the talk highlights both institutional constraints and pathways for innovation. Through ANT, we can synthesize fragmented practices into a coherent framework that redefines prevention—not only as a clinical intervention, but as a collective negotiation among communities, technologies, and policymakers.https://static.igem.org/peertube/streaming-playlists/hls/f31ed3e5-072f-4b07-9e00-a84021a7903f/8ccf5a55-29b1-4701-801f-91d680a0612a-master.m3u8https://video.igem.org/videos/embed/w2ftTAvQadpCpn2dQ2UCgr5570212025-11-11T00:57:53.536ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/efGgGmr76UxDfTnQfZRmiNhttps://video.igem.org/lazy-static/thumbnails/f1223995-5c35-4760-a267-1ec2141db65e.jpgThe Amazing Journey of Cloning Toehold SwitchesIn this talk, we would like to share our journey of designing and cloning toeholds switches - RNA tools used in synthetic biology in our project for detect colorectal cancer in faecal samples. From step-by-step lab methods to real challenges such as failed experiments and problem-solving, we would like to share the teamwork, resilience, and lessons learned that shaped our growth as young scientists.https://static.igem.org/peertube/streaming-playlists/hls/6b540873-4336-46b0-b025-4b1176383750/af11e430-c888-4f77-85ad-afb01a881e2b-master.m3u8https://video.igem.org/videos/embed/efGgGmr76UxDfTnQfZRmiN5900152025-11-11T00:59:42.027ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/vrGrZR8aw7WXr8ZE4wre7thttps://video.igem.org/lazy-static/thumbnails/ae1eafbc-ad5a-469e-9b3a-b0185feda674.jpgPutting Publications into Practice: A Novel Filter Medium for Water BioremediationThousands of publications report microorganisms that have been identified or genetically modified for water bioremediation. These microorganisms often outperform existing technologies in terms of cost-effectiveness, sustainability, and efficacy but rarely make it out of the lab due to a lack of infrastructure for their implementation in water treatment systems. The Sequester Biofilter Medium aims to bridge this gap between academia and industry, translating publications into real world impact. Tune in to learn more about this adaptable novel filter medium, how iGEM Guelph is using it to improve lives, and how you can apply it to your bioremediation projects.https://static.igem.org/peertube/streaming-playlists/hls/ee6f8ae1-1ac6-41d5-922d-392569d983f3/106a4d18-fdb6-4d6f-9282-f972e4147229-master.m3u8https://video.igem.org/videos/embed/vrGrZR8aw7WXr8ZE4wre7t317032025-11-11T00:58:23.105ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9rAURQziX9AgM7HPPB2Tyihttps://video.igem.org/lazy-static/thumbnails/28bfd0bc-d391-4325-80b0-50e1b1d7d84b.jpgEngaging All Ages: A Methodology for Public Synthetic Biology EducationOur talk shares our methodology in designing tailored synthetic biology education for four distinct age groups—from children to adults. For students, we combined interactive classes, exhibitions, and creative activities like a synthetic biology choir to build confidence and inspire future engagement in the field. For adults, we used hands-on experiences such as indigo dyeing, lab tours, and a custom board game to demystify synbio and foster public support. We will discuss how these strategies effectively communicate complex concepts, spark curiosity, and bridge the gap between science and the community. This approach offers a replicable model for science outreach, providing the iGEM community and broader educational fields with practical tools to enhance public understanding and engagement in synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/445c37ea-a3a1-4c82-997e-a767aa403975/cdb78b53-9c94-436b-9ddd-e04b4c2b0bf2-master.m3u8https://video.igem.org/videos/embed/9rAURQziX9AgM7HPPB2Tyi5880292025-11-11T01:07:23.113ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5e3LNKDfjmVHmjZpCxTW83https://video.igem.org/lazy-static/thumbnails/0fae71af-4d55-46b0-bdb3-7f021e47bf24.jpgSOLARISBillions of years ago, cyanobacteria transformed Earth’s atmosphere through carbon fixation, enabling the metabolic foundation of modern ecosystems. Yet, despite its central role, photosynthetic carbon fixation has not changed much since its origin. With SOLARIS, we reexamine this long-standing process from the perspective of synthetic biology, foundationally changing and advancing CO₂ fixation in cyanobacteria. Our solution lays the groundwork for photosynthesis 2.0 to overcome the kinetic and oxygen-sensitivity limitations of RuBisCO by introducing a distinct carbon fixation cycle supported by a carbonic anhydrase system we newly identified and confirmed for activity. This has the potential to make cyanobacteria far better at fixing CO₂ from the atmosphere and turning it into biomass. SOLARIS offers the tools and methodologies for rewriting core metabolic pathways with synthetic biology for optimizing synthetic carbon fixation cycles in vivo and in vitro, a foundational step toward programmable photosynthesis and a new generation of engineered phototrophs.https://static.igem.org/peertube/streaming-playlists/hls/2236eea9-96e1-4cc3-9724-5f1947cd68d8/003e081e-f568-48ff-9af2-def4fbe28dca-master.m3u8https://video.igem.org/videos/embed/5e3LNKDfjmVHmjZpCxTW83569032025-11-11T01:09:20.857ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9TU29ekZBW93Tr1ZYAwFmthttps://video.igem.org/lazy-static/thumbnails/a81d6285-e5df-4b9e-984a-e409b524948d.jpgBeyond the Lab: Shaping 360º Scientists for Today’s WorldWhen it comes to science and scientists, people usually think about their experimental work in the lab. It is known that scientists, especially biologists, use a great part of their time doing experiments. The truth is that, when it comes to real science, reality is far from the widespread idea. A good scientist isn’t just an expert on his field: scientists need to be innovative, analytical, communicative, discerning and, of course, have strong experimental skills. That’s why at iGEM Barcelona-UB we want to foster the idea of a 360º scientist: a professional who (while also having deep knowledge of their own scientific speciality) is aware of the world that surrounds them: they must have a broad cultural background, awareness of current events, and their critical thinking…https://static.igem.org/peertube/streaming-playlists/hls/4808198d-e8e8-4e49-a469-a6c31d92202f/179c2833-fc14-4c46-965c-a5c035e6371d-master.m3u8https://video.igem.org/videos/embed/9TU29ekZBW93Tr1ZYAwFmt4730152025-11-11T01:09:03.289ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/x9xNJFVsHzQQgZEozppJ4Qhttps://video.igem.org/lazy-static/thumbnails/5ca1d6f3-5a62-43e0-964f-c18bb4e0736d.jpgGenes to Generations: Educating Our CommunitiesWe are collaborating with team HS-KY (Team #5782 Bioremediation) on this stage talk. We plan to give a talk entailing the human practices aspect of iGEM. This would range from introducing human practices all the way to what both of our teams did for human practices. Both of us will share about how human practices shaped our work all the way from stakeholder engagement and public outreach to designing educational initiatives. We will show and reflect on how our interactive activities and community engagement allowed us to translate our lab work into a presentation to a society that allows us to develop a more meaningful project. We want to show how we can utilize human practices to more than just the medal criteria, but also to drive our projects and impact.https://static.igem.org/peertube/streaming-playlists/hls/fc3cd981-c155-4270-baf8-8210092d9fee/32e91fa2-6bb4-4be1-8e77-892704b7c406-master.m3u8https://video.igem.org/videos/embed/x9xNJFVsHzQQgZEozppJ4Q537032025-11-11T01:11:16.995ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pvD3w4nzuPcp6E2A35mrwQhttps://video.igem.org/lazy-static/thumbnails/f79c476e-5bfb-459e-8d8e-eab11413d4ce.jpgDemystifying the White ListWorking with organisms, components or activities outside the White List can feel like uncharted territory. In this talk, we’ll walk you through how to approach these projects responsibly by designing experiments safely, assessing risks and staying mindful of regulations. Join our session for an in-depth look at the guidebook we developed during our iGEM journey, offering practical advice and clear steps. Learn how to stay alert without feeling overwhelmed, ensuring that your work remains safe, ethical, and compliant, even when stepping outside the typical boundaries.https://static.igem.org/peertube/streaming-playlists/hls/be65965b-1375-43ae-a59c-27b6bd8ba520/5574075e-7fb3-4bff-90af-f9800ba2f35c-master.m3u8https://video.igem.org/videos/embed/pvD3w4nzuPcp6E2A35mrwQ498072025-11-11T01:13:02.682ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qnHsU8acEinGgvX7zbHe3ghttps://video.igem.org/lazy-static/thumbnails/9d34f64f-d8f6-498e-8353-36192e1f0365.jpgGamification in Glaucoma & SynBio Education: Original Games for Down-to-Earth EngagementsIn iGEM 2025, we engage diverse stakeholders to promote glaucoma awareness and SynBio participation through tailored educational content. Our team creates targeted games and tools to enable effective communication across different groups. We share our approach to glaucoma education, including the design process and outcomes of our original creations: the online game ECM Hunter and the ATGCU Card game, along with their prototypes and variations. Teams can learn to develop more directed and purposive educational approaches, leading to more engaging and effective communication of scientific values in their outreach activities.https://static.igem.org/peertube/streaming-playlists/hls/c5637ffd-c7a3-42eb-b392-a43d8f6849ff/1b5dc571-d54e-400c-a820-f2913ed6d9d3-master.m3u8https://video.igem.org/videos/embed/qnHsU8acEinGgvX7zbHe3g5530142025-11-11T01:14:16.073ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/uG84DXe3be54Npiyn2ahj9https://video.igem.org/lazy-static/thumbnails/64d89990-a789-49b2-bc82-74737f242f07.jpgPlasMission: How The Fight Against Antimicrobial Resistance Move CommunitiesThe main focus of the stage talk will be on how the Human Practice team facilitated communication and conversations within local communities regarding antimicrobial resistance. It will cover the entire outreach and consultation process, clearly showing how our project impacted the community and achieved the target level of awareness. The talk will also highlight the importance of instilling proper values about antibiotic use across diverse age groups.https://static.igem.org/peertube/streaming-playlists/hls/e859fc6b-44bd-4d7f-a938-9edc8717ce74/6f712495-effa-4f11-8975-6b0c06508ea1-master.m3u8https://video.igem.org/videos/embed/uG84DXe3be54Npiyn2ahj9587042025-11-11T01:15:24.378ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cAyXbCx6m2Tt812UTLhZFfhttps://video.igem.org/lazy-static/thumbnails/c515a0eb-44a7-4fb7-8cb8-e50f507b4e3d.jpgThe RNA Renaissance: Retron and Ribozyme Innovation for Next-Generation BioengineeringRNA is far more than just a messenger between DNA and proteins, it is a molecule full of possibilities. Beyond its well-known role in protein biosynthesis, RNA exists in many specialised forms with remarkably diverse functions, from transfer RNAs that support translation to ribosomal RNAs, the true catalytic engines of life. In our project, we have harnessed the power of functional RNAs - specifically, retrons and self-cleaving ribozymes - to expand the boundaries of what is possible in synthetic biology. In this talk, we will share how we integrated these RNAs into our designs and explore the broader potential of programmable RNA tools for precise genome editing. Our aim is to highlight how changing our perspective on RNA can open up new frontiers for engineering biology.https://static.igem.org/peertube/streaming-playlists/hls/5de81ed8-04ea-448a-a8cf-c5171f1b5f88/fc857bb4-3ab6-4c1f-b122-45328f65d66c-master.m3u8https://video.igem.org/videos/embed/cAyXbCx6m2Tt812UTLhZFf637042025-11-11T01:17:24.965ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7ZSYChQUkvAkgeGroxyXiShttps://video.igem.org/lazy-static/thumbnails/427cc4f8-ee4a-41c4-ab8c-857006f1d6ef.jpgAn iGEMer's Flux Balance Analysis: State-of-the-Art Techniques for Model ReconstructionFBA is a widely adopted method in synthetic biology research and an important method. It requires the use of GSMMs (genome-scale metabolic models) which encapsulates a network of gene-reaction rules, compartments, and metabolites. However a vast majority of organisms are not properly annotated and their GSMMs may be incomplete/inaccurate. This causes difficulties in providing modeling standards for new areas of research such as algae etc. In our live talk we'll touch on state-of-the-art practices in model reconstruction, and the use of modern workflows and software tools to address/fix inaccuracies in GSMMs. For this purpose, we'll introduce a general workflow that uses COBRApy, Memote, and few other reconstruction tools/practices.https://static.igem.org/peertube/streaming-playlists/hls/38aba461-97e2-47db-a091-573bf8f08bb8/b6f6e271-41a7-438a-a029-9ac38b4751de-master.m3u8https://video.igem.org/videos/embed/7ZSYChQUkvAkgeGroxyXiS6360132025-11-11T01:18:51.425ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/s14TjZiTHjTBvkSmvH4UoKhttps://video.igem.org/lazy-static/thumbnails/4a188ac9-8ca6-4a22-8c07-348629ce5628.jpgCondensatesCondensates are membrane-less compartments whose formation is driven by liquid-liquid phase separation (LLPS), similar to oil in water. These dynamic droplet like compartments can enrich specific biomolecules (e.g. proteins and nucleic acids) creating specialized biochemical environments. After their discovery in Dresden in 2009, condensates have been shown to be involved in many key cellular processes. (Banani, Lee, Hyman & Rosen, 2017). Their application is explored by TRAPS the team of Technische Universität Dresden within the iGEM competition. In this presentation we will introduce you into how condensates work, what their potential is and how they properties can change the future of biology. Banani, S., Lee, H., Hyman, A. et al. Biomolecular condensates: organizers of cellular biochemistry. Nat Rev Mol Cell Biol 18, 285–298 (2017). https://doi.org/10.1038/nrm.2017.7https://static.igem.org/peertube/streaming-playlists/hls/d28fffd5-48b6-4503-9ab2-6327dcb0dc9f/1792999f-821d-4264-944f-84226d524816-master.m3u8https://video.igem.org/videos/embed/s14TjZiTHjTBvkSmvH4UoK5945212025-11-11T01:26:49.773ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7SypkrCYzFwGJTVexeLtFFhttps://video.igem.org/lazy-static/thumbnails/4d1d4b0c-7283-49b9-b448-06510688e423.jpgAssessing Our Impact: Pragmatic SDI for iGEM TeamsHow can student teams approach the assessment of the real-world impact of their projects without falling into vague claims or rigid frameworks? In this talk, we will share how our team, PhytoBlock, developed a practical approach to Sustainable Development Impact (SDI) that other iGEM teams can easily adapt. Drawing on SDGs, B corps' standards and SDG-aligned indicators, it will be shown how we assessed the current situation in the cacao industry, identified key risks, selected measurable indicators, and established a methodology for future tracking and reporting processes. Using our project as a case study, this session will provide a framework to help teams connect their lab work to global sustainability goals in a credible, transparent, and impactful way.https://static.igem.org/peertube/streaming-playlists/hls/37a5fd36-0d10-49fb-9082-76853df66799/094c62f7-095c-46aa-b06a-007ae8274fd2-master.m3u8https://video.igem.org/videos/embed/7SypkrCYzFwGJTVexeLtFF630022025-11-11T01:20:19.737ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/jgXWsTE6dHEPxhnoAS49Fqhttps://video.igem.org/lazy-static/thumbnails/7003dc8c-c24c-4925-9171-2ebc9dbf5576.jpgSynthetic Biology Community Education and Outreach via iGEM in MacauWe would like to highlight our iGEM team educational efforts in the Macau community. We plan to show our educational activities, such as visits to local high schools, hosting summer camp students, informational exchanges with community business leaders, community surveys and organizing iGEM Day at our University. We will present what we have learnt from these activities, and how they have inpacted our community. Our main goal of the stage talk is to share our local community educational efforts with other iGEM teams so that it may encourage them to also act locally to influence their own communities in a sustainable way.https://static.igem.org/peertube/streaming-playlists/hls/93ff2046-d427-4f4b-8590-9de10877c4e6/cb7e6934-977c-4c2f-8203-7b80593aea7e-master.m3u8https://video.igem.org/videos/embed/jgXWsTE6dHEPxhnoAS49Fq605042025-11-11T01:29:33.261ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/2Rh1iUq8K5dZCXWGsjP8Wdhttps://video.igem.org/lazy-static/thumbnails/0f639e2e-85e9-4c2e-ba77-8d665e6ce3cc.jpgHow Integrated Human Practices Shaped Our Market StrategyThroughout our iGEM journey we collaborated with several key stakeholders on what issues are currently prevalent in the seed coating market. We discovered that the market is rigid and that end-users value trust and reputation over all else. These insights gave us the opportunity to reconsider our marketing approach. Integrating our human practices into our entrepreneurship strategy allowed us to develop a fit for purpose solution to better respond to customer needs, and to provide them with tailored coatings for tomorrow's crops.https://static.igem.org/peertube/streaming-playlists/hls/0efa726f-eac4-4475-a107-e2e70c58e6fc/b0322bef-4489-41d5-b34f-4873668c4a5d-master.m3u8https://video.igem.org/videos/embed/2Rh1iUq8K5dZCXWGsjP8Wd597072025-11-11T01:31:07.377ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4uy35ZGuUs6DcNswNWAz7Mhttps://video.igem.org/lazy-static/thumbnails/90f3bdd7-50b7-476e-92e8-5be528c1ed96.jpgNo Magic Wand, Just CAPE: Computational Assistant for Pathway EngineeringIn science, every minute counts. Researchers spend endless hours searching, comparing, and organizing scattered data. Automation promises speed. Precision demands accuracy. Rarely do the two meet. Our mission was clear: turn complexity into simplicity. Chaos into order. We built CAPE, a workflow designed to bring together diverse data, speak a single language, and deliver outputs that are clear, reliable, and ready to use. Not a magic wand—just a tool that makes research faster and more effective. Automation for speed. Precision for reliability. Standardization to make it real. CAPE reconstructs metabolic pathways to engineer bacteria capable of breaking down environmental pollutants. In our talk, we will pull back the curtain on the tightrope walk we performed - balancing the promise of automation and speed with the non-negotiable requirement of biological accuracy. We'll reveal the biggest hurdles we encountered and how our decisions transformed CAPE from an idea into a powerful tool.https://static.igem.org/peertube/streaming-playlists/hls/1c47fc02-0f63-4e5a-94b3-6ce82a85a51d/469b47b6-b2ac-4647-bf26-d25c568f2ba1-master.m3u8https://video.igem.org/videos/embed/4uy35ZGuUs6DcNswNWAz7M554022025-11-11T01:31:53.736ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pWHX4xnoD1H3zAh3bHhzPkhttps://video.igem.org/lazy-static/thumbnails/24d45c46-2c99-4d31-9ba9-5eddf51d1918.jpgRetrons in Action: A Therapeutic Platform for Histamine-Triggered Aptamer ReleaseInvisible chronic conditions like Mast Cell Activation Disorder (MCAD) affect millions, yet diagnosis often takes decades. Our iGEM team tackled this challenge by engineering a retron-based biological system that responds to histamine elevation in the gut by synthesizing and releasing therapeutic aptamers in vivo. This talk highlights three key innovations: (1) repurposing retrons for single-stranded DNA aptamer production—a novel therapeutic application, (2) designing histamine-sensitive circuits that act as both biosensors and drug delivery platforms, and (3) building modular genetic tools adaptable to other biomarker-triggered diseases. Driven by lived experience with invisible disability, our team sought to create tools where traditional medicine falls short. We believe synthetic biology can empower patients and redefine chronic illness care. Join us to explore how retrons, aptamers, and patient-centered design converge in a system with real translational promise.https://static.igem.org/peertube/streaming-playlists/hls/c1e63477-bad9-4a17-a5ef-414599950f2d/fcd602c2-86ba-41bd-99e6-b2d3de187e1e-master.m3u8https://video.igem.org/videos/embed/pWHX4xnoD1H3zAh3bHhzPk584072025-11-11T01:34:54.018ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9QswEF6j8KSGgAw66KVbu2https://video.igem.org/lazy-static/thumbnails/17ca3097-260b-40f4-8244-a33518c23553.jpgGlucoXpert: Oral, Ultra-long-acting GLP-1-based Live Biotherapeutic Therapy with Enhanced Patient...Obesity, a chronic complex disease characterized by excessive fat accumulation, has become a major global public health issue. In the field of pharmacotherapy, GLP-1-based medications have emerged as a primary choice for treating obesity. However, traditional GLP-1 receptor agonists require frequent injections or oral administration with limited efficacy, which not only severely impairs patient compliance but also tends to cause systemic side effects. To address this, we designed a system using the natural-colonized gut strain Escherichia coli Nissle 1917 (EcN) as the chassis, combined with sensing elements including those responsive to daily beverages to achieve long-term synthesis of GLP-1 in the intestine. Additionally, through modification of cleavage site sequences, we enhanced the in vivo circulation half-life and stability of GLP-1 to prevent rapid degradation. The integration of inducible pre-synthesis and molecular stability engineering is expected to yield truly “high-patient-compliance” and "ultra-long-acting" GLP-1-based live drugs for glycemic regulation and weight loss.https://static.igem.org/peertube/streaming-playlists/hls/478d28be-69aa-4789-81cb-8c23860d3419/4cf3f3b0-7fa1-4928-afeb-ce13b9db0c87-master.m3u8https://video.igem.org/videos/embed/9QswEF6j8KSGgAw66KVbu2610082025-11-11T01:36:49.275ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8jbUGCYjwBf4giFDHcMW2chttps://video.igem.org/lazy-static/thumbnails/04963c29-4bdb-41f5-9404-c726a4bcf42b.jpgEnzymatic Control using Logic-Based Inducible Promoter System EngineeringMany biological systems are limited by regulation and functionality. Conventional inducible systems that rely on conditional control tend to be stochastic and offer little tunability. Furthermore, many wild-type enzymes display poor catalytic efficiency or stability when expressed in heterologous hosts. Here, we present ECLIPSE (Enzymatic Control using Logic-Based Inducible Promoter System Engineering), a genetic framework that integrates multi-layered regulation with synthetic enzymology. We combine inducible repressor-operator systems with CRISPRi-based dCas9-sgRNA repression to achieve both conditional ON/OFF switching and fine-tuned, graded control of gene expression respectively. We also optimised our effector enzyme through two complementary approaches – host optimization and rational mutagenesis. We then apply this framework to treat hypercholesterolemia, engineering E. coli Nissle to express ECOP170 for the in-situ breakdown of dietary cholesterol. Our probiotic platform thereby acts as a proof-of-concept that bridges precise genetic regulation with optimized enzymatic function, offering a generalizable strategy for designing programmable and robust systems.https://static.igem.org/peertube/streaming-playlists/hls/3b3a14c7-1b86-46a2-b505-25714278a8f5/f786c8b7-04a3-48ef-9e74-0f0308aa0ee9-master.m3u8https://video.igem.org/videos/embed/8jbUGCYjwBf4giFDHcMW2c656002025-11-11T01:38:28.309ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4YiuPPeyy6rceh8oZau9f3https://video.igem.org/lazy-static/thumbnails/737f7b2d-33ec-4cd3-b1b5-ee89ef25966e.jpgDeveloping Scalable Perchlorate Removal in Martian Regolith via a Novel Microbial Coculture and A...Martian soil is rich in perchlorates, a molecule found to be toxic to both plant growth and human homeostasis. This compound serves as a significant barrier to Mars exploration and long-term colonization. Team Cornell proposes PRoSPER, Planetary Removal of Soil Perchlorates and Enrichment Remediation, as a means of establishing future Martian settlements through bioremediation and traditional agricultural development. PRoSPER utilizes a microbial coculture of E. coli with a genetically engineered perchlorate reductase pathway, and Synechococcus sp. PCC 7002 to uptake the resulting chloride byproducts. This coculture will be housed in a novel Adaptive Reaction Chamber bioreactor family that is easily adjusted to optimal growing conditions. PRoSPER improves the viability of Martian settlement by not only removing a key obstacle to plant growth but also encouraging a dual-market strategy approach that can be used to advance the future of space exploration.https://static.igem.org/peertube/streaming-playlists/hls/2027d999-1665-49d9-ac86-2db70a44c7de/89a06f63-1cec-4b4d-a080-4c60f9a41eb6-master.m3u8https://video.igem.org/videos/embed/4YiuPPeyy6rceh8oZau9f3591072025-11-11T01:38:03.039ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qV9wSsta8YezsYFHRQNSwshttps://video.igem.org/lazy-static/thumbnails/5d310e24-fb99-41c0-911b-272d447325b6.jpgBeyond the Lab: Conversations, Classrooms, and ChangeAmid rising skepticism toward research and science education in the United States, we launched education-first projects to spark international conversations about science and funding. We convened teams across countries to co-create podcasts and interviews that surface new perspectives on what gets funded, why it matters, and the role of bioethics. We also sought guidance from expert witnesses in science communication and education to improve our teaching. We launched You Are What You Fund, a public reflection campaign inviting students, researchers, and communities to examine how funding choices shape discovery and public perception. We created 60 Second Scientist, scripting and animating one-minute explainers, and partnered with middle and high schoolers to develop a kid-safe DBTL workshop. This presentation shares outcomes, lessons, and a practical toolkit for the continuation of our mission!https://static.igem.org/peertube/streaming-playlists/hls/c9c7017e-0d1d-4ea6-a1c4-1e9c46a4c37e/40a3605c-c9f7-40c2-9323-5f29f79fa30d-master.m3u8https://video.igem.org/videos/embed/qV9wSsta8YezsYFHRQNSws615032025-11-11T01:41:45.728ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pYTMc2McphHEWpsMpHVJDdhttps://video.igem.org/lazy-static/thumbnails/69a4849d-60f7-4b7b-a9c1-5f119ea6996d.jpgLGEO: An Integrated Optogenetic System for Diabetes TherapyOur project, LGEO, introduces a holistic synthetic biology strategy to address Type 2 diabetes and obesity. We have seamlessly combined wet lab, dry lab, and human practices to design a transformative therapeutic approach. In the wet lab, we engineered an optogenetic circuit based on bioluminescence, enabling precise, light-controlled co-expression of GLP-1 and insulin. In the dry lab, we developed an automated LEGO-inspired system: proprietary software calculates personalized treatment protocols, which are executed through a wearable LED device for non-invasive light delivery. Beyond the bench, our Human Practices team engaged in extensive science communication and community surveys to raise awareness and gather feedback. This presentation will demonstrate how interdisciplinary integration—from molecular engineering to hardware development and public engagement—can drive the creation of patient-friendly and feasible future medicines.https://static.igem.org/peertube/streaming-playlists/hls/c233c015-9398-4f3c-b44b-fb6f7dd420ce/085f1fd2-142c-42e8-b323-6b29a98fa283-master.m3u8https://video.igem.org/videos/embed/pYTMc2McphHEWpsMpHVJDd645092025-11-11T01:43:36.619ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/fi6nY1Rr17ZLTe7jHo9Cy7https://video.igem.org/lazy-static/thumbnails/58955037-cbcf-4820-921a-ab1446ad143c.jpgAMP-MD (Artificial Membrane Insertion of Peptides - Molecular Dynamic)A platform to simulate the interactions between antimircrobial peptides and outer membranes of different bacteria with molecular dynamics. We observed insertions of two tested peptides (cm15 and smap29) into a smooth LPS (E.Coli R3 O111) and rough LPS (A.Baumannii) in our simulations and determined factors that would suggest a membrane disruption.https://static.igem.org/peertube/streaming-playlists/hls/73c2e66b-e693-4022-bb8c-d9a3d10a8a16/715492d7-5a98-4765-8362-fb12266b60d8-master.m3u8https://video.igem.org/videos/embed/fi6nY1Rr17ZLTe7jHo9Cy7576002025-11-11T01:50:37.609ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5YJTg3QEi8NPMTUT9FHH2Qhttps://video.igem.org/lazy-static/thumbnails/41784c91-6615-4e1e-8d16-d5a5c020530c.jpgBeyond the Lab: Bringing Synthetic Biology to Puerto Rican CommunitiesSynthetic biology is an emerging discipline that can improve the environment, health, and manufacturing. Various institutions face barriers such as limited access to resources and exposure, which restrict their awareness and engagement with this field. Currently, the Caribbean has one synthetic biology team, iGEM-RUM UPRM in Puerto Rico. For this reason, we developed educational initiatives such as the iGEM-RUM Research Showcase, SynBio 101 Immersive Program, Industrial Microbiology and Synthetic Biology Didactic Hall, among other educational talks and collaborations to educate K-12, undergraduate students, and members of the Puerto Rican community about this emerging branch. The first Jr IGEM-Chapter at the Residential Center of Educational Opportunities of Mayagüez (CROEM) was established. This represents a critical step in nurturing the next generation of synthetic biologists, young minds who will carry forward the mission of “synthesizing a better world”. iGEM-RUM seeks to inspire dialogue on how synthetic biology can transform education and society.https://static.igem.org/peertube/streaming-playlists/hls/2850a242-bba6-45be-aa66-f63ab986d7c6/c141960a-9e7c-414d-8dd9-dc7888fe3ac1-master.m3u8https://video.igem.org/videos/embed/5YJTg3QEi8NPMTUT9FHH2Q530002025-11-11T01:52:34.529ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/weMEVWtUSLUQXKq5qbb1bohttps://video.igem.org/lazy-static/thumbnails/51b06cc5-73e5-454f-bd77-5f70fc5af627.jpgModelling the 3D Co-Transcriptional Folding of G-QuadruplexesWhilst many algorithms to predict folding of DNA exist, they lack different key features to predict the real time 3D co-transcriptional folding of more complex DNA structures: a co-transcriptional aspect is often not incorporated into models, many models lack 3D predictions and outputs, and being unable to predict the folding of much longer sequences or those containing non-standard structures like G-quadruplexes are other common issues. Algorithms for co-transcriptional folding of DNA are important in predicting whether or not DNA will fold into global energy minima structures, or whether interactions during the folding process lead to the DNA getting "stuck" in local energy minima. The addition of structures such as G-quadruplexes poses other problems, particularly in the thermodynamic and algorithmic approaches. Our algorithm is based on iterating thermodynamic "ease of achievements" to restrict the ways in which DNA can fold to represent the active addition of nucleotides.https://static.igem.org/peertube/streaming-playlists/hls/f4def985-56d0-4730-8944-99428934c78a/82552229-a6aa-4c5c-ac3e-2d3b4599ea39-master.m3u8https://video.igem.org/videos/embed/weMEVWtUSLUQXKq5qbb1bo595062025-11-11T01:55:41.448ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/fy28r27DXbzLDwA4YpU5GNhttps://video.igem.org/lazy-static/thumbnails/45aaa4c2-416c-4507-a42b-e424f3c4e641.jpgAquarius: Channeling SynBio from the Lab to Aquatic EnvironmentsThe flow of water is essential to life on Earth, but can also carry negative consequences. Water movement transports pollutants to lakes, spreads harmful microbes through household plumbing, and corrodes infrastructure. Synthetic biology offers powerful solutions, yet few have been implemented in real-world aquatic environments. The lack of SynBio deployment in water environments stems from limited understanding of how engineered organisms function in dynamic environments, in which they must compete within native microbial communities, withstand shifting nutrient levels, and endure various physical stressors. Our project addresses this challenge through an integrated approach of chassis analysis software, predictive mathematical modeling, comprehensive RNA-seq meta-analysis and experimentation with engineered constructs in laboratory and aquatic settings. By analyzing how synthetic circuits behave in flowing water compared to laboratory settings, we uncover foundational design principles that will enable the development of safe, effective synthetic biology applications to tackle pressing global challenges linked to aquatic environments.https://static.igem.org/peertube/streaming-playlists/hls/75d86fe6-9ffc-4616-876c-2b21ab7d851e/4ca0832b-ccad-4130-802c-e43bc60c1e6e-master.m3u8https://video.igem.org/videos/embed/fy28r27DXbzLDwA4YpU5GN618072025-11-11T01:57:10.819ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/f2kgrTzNjWd4FtivwxvYJYhttps://video.igem.org/lazy-static/thumbnails/e9b3eadd-7580-49c9-ac27-bb73ba63beb8.jpgNew Technologies, Old FearsThroughout Human History, novelties and innovations sparked opposing feelings in society: excitement and fear. Biotechnology, perhaps at the same level as AI, is the field with the most disruptive "sci-fi" innovations, but also the scariest in terms of "what could go wrong". As young scientists and iGemers, this concerns us all: from new health treatments (e.g. COVID-19 vaccines) to new kinds of food (e.g. microbial food production at Solar Foods or milk-producing engineered bacteria at hydrocow.eu), we will have to be able to communicate our ideas, or their potential to solve global challenges will be dispersed in fake fears, fake news and conspiracies. Our speech is a call to action, to open up the gates of science and academia to the larger public, and focus on Human Practices and Scientific Communication as much as (if not more than) the science itself.https://static.igem.org/peertube/streaming-playlists/hls/718f8eec-b53e-4b3f-9474-3ed4e77c2294/dc650217-4f24-4664-804f-e604ce6346be-master.m3u8https://video.igem.org/videos/embed/f2kgrTzNjWd4FtivwxvYJY626042025-11-11T01:58:44.302ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pH1BCgCUEztBQhPNgfHDfYhttps://video.igem.org/lazy-static/thumbnails/6f6070fe-cec0-46cb-a133-9ae133b92d2f.jpgDynamic Simulations-Assisted Engineering of Hydrolases for Efficient PET/PBAT DepolymerizationAgainst the backdrop of serious "white pollution," enzymatic degradation offers an eco-friendly way to address plastic waste. Our project leveraged dynamic simulations to aid hydrolase engineering. We first used molecular dynamics and QM/MM simulations to explore the degradation mechanisms of PET and PBAT. Then, based on these simulation insights, we conducted rational design and directed evolution of hydrolases. By integrating computation from dynamic simulations with "wet lab" work like enzyme expression, we aimed to develop high-performance engineered hydrolases, providing effective support for efficient PET and PBAT degradation. We will also share our project’s journey—with a special focus on our Human Practices and Education efforts. We share our successes: insightful conversations with experts and local enterprises, and engaging presentations on key topics for students for all ages. But there were also tough difficulties: we faced rejections when reaching out to certain partners for Human Practices and educational outreach.https://static.igem.org/peertube/streaming-playlists/hls/bffc0ff1-bd69-4971-be11-f0e8069e2640/efbb3fbf-6cc5-493b-8563-4e22997d2e57-master.m3u8https://video.igem.org/videos/embed/pH1BCgCUEztBQhPNgfHDfY622012025-11-11T02:00:31.190ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/w3K8JXqk7vZ5SSFTYHrKrHhttps://video.igem.org/lazy-static/thumbnails/5f553b38-b4e8-47ef-b225-28b004cc9c91.jpgiGEM Data Analysis and Visualization PlatformThe iGEM Data Analysis and Visualization Platform is a comprehensive tool designed for efficient retrieval, analysis, and visualization of project data from the International Genetically Engineered Machine competition. By integrating project information from 2004 to 2024, the platform provides the iGEM community with powerful data analysis tools for systematic analysis and expands potential applications in research and education. Unlike traditional methods where users manually browse massive wiki pages to extract useful content, this platform supports multiple data dimensions, including project descriptions, technical solutions, awards, team profiles, and biological parts. It greatly reduces the time needed for information extraction, removes repetitive manual collection work, and provides a unified access point. It also integrates semantic search powered by large language models and supports diverse visualization methods to help users explore project information and identify trends in synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/f3543ab1-f920-42bb-ba51-3140e549c197/0b4420cc-2ea7-4593-b6b3-4ccfde427b7e-master.m3u8https://video.igem.org/videos/embed/w3K8JXqk7vZ5SSFTYHrKrH588062025-11-11T02:02:10.858ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/jKh3JUQDGcVaAJtHvt4Vfuhttps://video.igem.org/lazy-static/thumbnails/9d224acc-e9cd-47a0-8442-477378081a48.jpgLinking Biological Innovation and Chemical Know-How with ModellingLinking biological innovation and chemical know-how with modellinghttps://static.igem.org/peertube/streaming-playlists/hls/97cf5e11-5617-4b15-beb8-78554045b3c4/b27ba46e-c69a-40e7-b6d6-808e1193f10f-master.m3u8https://video.igem.org/videos/embed/jKh3JUQDGcVaAJtHvt4Vfu621072025-11-11T02:03:43.413ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8q4yWzhYaSRs3yTXGY1jpohttps://video.igem.org/lazy-static/thumbnails/d29af771-bf18-49c8-a583-a506635a4d3f.jpgR.E.Y.N.A. : Radiation-Resistant Engineered Yeast for Nutrition from Astronaut's WasteTo enable self-sufficient long-term space exploration, regenerative life-support systems must minimize reliance on Earth resupply. While oxygen and water are recycled on the ISS, sustainable nutrient and food production remain challenges. Our project, R.E.Y.N.A, pioneers cellular agriculture for in-situ protein generation from astronaut waste streams, contributing to a closed-loop bioregenerative system. We engineered Saccharomyces cerevisiae to convert urea-rich urine into single-cell protein by deleting the nitrogen catabolite repression regulator GAT1 and overexpressing GLN1 and GDH1, enhancing nitrogen assimilation and amino acid biosynthesis. To ensure resilience under Galactic Cosmic Radiation, we introduced RAD51 and the tardigrade-derived Dsup protein to improve DNA repair and oxidative damage resistance. Additionally, a polyvinyl alcohol–melanin bioreactor lining provides passive radioprotection. Together, these innovations enable a self-sustaining microbial protein production system that promotes regenerative nitrogen recycling and strengthens mission autonomy for deep-space habitation.https://static.igem.org/peertube/streaming-playlists/hls/3c0c0519-d568-40ec-99e7-7dfc17e48194/044dd64d-8a00-410a-9b30-cb6233353d08-master.m3u8https://video.igem.org/videos/embed/8q4yWzhYaSRs3yTXGY1jpo3785112025-11-11T02:02:37.812ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5GedxbRaDS4LiRUp5eNAwshttps://video.igem.org/lazy-static/thumbnails/a943c2e2-a172-4f4b-896a-f4e60c2f9553.jpgDual-Path Inclusivity: Bridging Public Understanding and Expanding Access for Special PopulationsIn this presentation, we will highlight our team’s “Dual-Path” concept within the Inclusivity track and the work carried out around it. On one path, we aim to enhance public understanding and empathy toward special populations, encouraging broader participation in inclusivity initiatives through online media and community-based activities. On the other, we focus on children in undeveloped regions, children with intellectual disabilities, children with ASD, and individuals with visual impairments. By directly engaging with them, we sought to understand their needs and challenges, and we proposed a series of replicable activities to help them better access synthetic biology and STEM knowledge. Ultimately, we hope our project can inspire future teams to adopt this Dual-Path approach, fostering a more inclusive vision for science learning and participation.https://static.igem.org/peertube/streaming-playlists/hls/2602733f-d076-46c9-a38e-fb8df7cefdee/d28f3dda-2cbc-4bc5-86c5-ce78b0188c37-master.m3u8https://video.igem.org/videos/embed/5GedxbRaDS4LiRUp5eNAws522002025-11-11T02:05:53.644ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4McHBf2p5z315abHSngPZ3https://video.igem.org/lazy-static/thumbnails/f2aff312-7741-4be3-8d19-e8b82ae00a1b.jpgHS-KY Human Practices and Educational Initiatives for PFAS AwarenessThroughout the 2025-2026 season, we have engaged in many educational and outreach initiatives, which are designed to make biology more approachable while raising awareness about crucial issues like PFAS contamination. A central focus has been on creating opportunities for students and community members to engage with scientific concepts in ways that are both meaningful and accessible. Through developing educational resources, like creating a children’s storybook in collaboration with NYU-Abu Dhabi’s iGEM Team, and organizing workshops, we have worked to inspire curiosity among younger audiences. At the same time, we have sought out collaborations with schools, community groups, and partner organizations to extend the reach of our efforts and build connections within our community. By combining these approaches, our goal has been not only to teach but also to empower the younger generations to engage in synthetic biology & combating environmental contamination.https://static.igem.org/peertube/streaming-playlists/hls/1e9b1b51-d5e7-46a8-85b2-805f9d5e44b0/a3612b21-6c80-4419-b4b6-7b6aacea84a2-master.m3u8https://video.igem.org/videos/embed/4McHBf2p5z315abHSngPZ3629052025-11-11T02:17:07.501ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mD5ktxhpuHnfccnL7myahehttps://video.igem.org/lazy-static/thumbnails/6dedf981-6e2b-4ef0-b605-8dca660264d3.jpgProtovateProtein engineering underpins modern biotechnology, yet turning designed sequences into robustly functional biomolecules remains inefficient because datasets are small, screening is costly, and sequence–function mappings are uncertain. While the development of large protein models such as Alphafold has advanced structure prediction, consistent performance across diverse conditions is still difficult to achieve. We built a data-free active-learning generative protein-language model framework, Seed & Seek, cooperating with biological directed-evolution (using a coarse-to-fine tuning strategy), spanning both in vitro ePCR mutations and in vivo EcoRep systems. Using the SpyTag/SpyCatcher pair as a testbed, we targeted improved association rates and iteratively validated candidates with split-luciferase assays. By uniting computation with biological selection, our framework accelerates discovery of adaptable, high-performing protein variants.https://static.igem.org/peertube/streaming-playlists/hls/a723f6f6-e226-413a-94fe-16aaa9c44e71/9f6517aa-3f84-426d-8f81-90c032f286b2-master.m3u8https://video.igem.org/videos/embed/mD5ktxhpuHnfccnL7myahe608002025-11-11T02:17:40.990ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/hguZ796bPo7MpsKqmMbYWFhttps://video.igem.org/lazy-static/thumbnails/81bd23e9-c527-49b5-a740-74c278d0e1c7.jpgPENgUIN—Prime Editor and Novel prime editing guideRNAs for Understanding Intracellular NarrativesWhile current biological tools can identify molecules, they cannot track the precise order of microRNA (miRNA) expression in single cells, creating a critical research bottleneck. Our technology, PENgUIN, overcomes this challenge. It uses a novel “miRNA switch Prime Editing” technique to sequentially record miRNA activity onto a “DNA Tape.” This tape can then be analyzed to reconstruct a complete timeline of expression at the single-cell level. PENgUIN holds the promise of unraveling the mechanisms behind complex medical problems, such as the heterogeneous differentiation of iPS cells and the acquisition of drug resistance in cancer. As a highly adaptable gene circuit component, it is also positioned to become a foundational tool that will drive the next generation of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/83bc3ccc-6b12-4ab5-8a7c-749c45f05ba3/fc0d8791-9c4b-437c-92bb-3585d32f7ac9-master.m3u8https://video.igem.org/videos/embed/hguZ796bPo7MpsKqmMbYWF640042025-11-11T02:18:18.362ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kuqSALVgBoUzwcJKUvm3QXhttps://video.igem.org/lazy-static/thumbnails/a5e8abad-e468-4b94-b1d9-3134f1da46f6.jpgEmpower, Inspire, Transform: Becoming a Catalyst for Change with Young MindsTo build a sustainable and ethical future through synthetic biology, we must spark curiosity in young minds today. They are tomorrow’s innovators and citizens, facing complex scientific and societal challenges. This talk, inspired by our Education Special Prize journey through science fairs, classrooms, and museums, highlights the power of early engagement. It outlines three key steps to becoming a catalyst for change. First, involvement creates real impact—engaging youth promotes diversity in STEM and raises awareness of ethical and environmental issues. Second, supported by neuroscience, a fun and supportive learning environment boosts creativity, resilience, and deep learning. Third, hands-on activities—from DNA extractions to escape rooms—make science tangible, relevant, and unforgettable. The message is clear: don’t just leave with ideas—leave with a mission. Be the role model who empowers the next generation to see science not just as knowledge, but as a force for innovation, ethics, and positive change.https://static.igem.org/peertube/streaming-playlists/hls/9dd5c9cb-b7a5-4c9c-8139-7505d12c908f/5d699bc9-41d3-4c06-b6a7-64351b472dc0-master.m3u8https://video.igem.org/videos/embed/kuqSALVgBoUzwcJKUvm3QX569002025-11-11T02:18:43.193ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/hcijuAgKetV94XArrAFJRkhttps://video.igem.org/lazy-static/thumbnails/3fb061f9-60c5-4699-b4dd-e5af28a5b535.jpgSPARK: Signal Inducible Protein Secretion in Mammalian CellsPrecise control of protein activity is fundamental to cell engineering and underpins the development of advanced cell-based therapies. While transcriptional and translational regulation provide powerful means of control in mammalian cells, post-translational regulation offers distinct advantages by enabling immediate and reversible responses to external stimuli. Here, we present SPARK (Signal-Programmable Activation of Regulated seCretion), which employs engineered molecular anchors to tether secretory vesicles carrying the target protein to the actin cytoskeleton and release them upon signal induction through protein dissociation or cleavage. We demonstrated that SPARK enabled efficient light- and chemically induced secretion of reporter proteins in HEK293T cells, exhibiting a markedly faster response than traditional transcriptional control systems. This platform provides rapid, tunable, and precise control of protein secretion, establishing a versatile foundation for on-demand therapeutic protein production and other applications that require fast and programmable protein release.https://static.igem.org/peertube/streaming-playlists/hls/832612b9-bc5c-4c54-bdb5-5b11f578662d/d58f4ace-b3d1-4d3b-b238-bedeacee96e2-master.m3u8https://video.igem.org/videos/embed/hcijuAgKetV94XArrAFJRk575032025-11-11T02:21:21.224ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/gos7JrU1K3xnXZg9XoqBrBhttps://video.igem.org/lazy-static/thumbnails/7d841394-f7c4-4eac-a7bc-03324ff9d83b.jpgThe Hidden Power of Human Practices in Building ExoSPYDuring the ExoSPY project, we met a wide range of people who helped us shape it. From the youngest to the oldest, at the science festival, the student association forum, and school presentations, we created connections which guided us throughout the project. From patients to doctors, our discussions were particularly transformative: a meeting with a gastro-oncologist helped us realize that ExoSPY could go beyond diagnostics and move towards a theranostic approach, combining detection with targeted therapy. Participation in an international conference further expanded our perspective, allowing us to deepen our understanding of the intricacies and potential of extracellular vesicles (EVs). Throughout these encounters, we matured not only as aspiring scientists but also refined the project, giving it a clearer and more purposeful direction.https://static.igem.org/peertube/streaming-playlists/hls/7c9b8995-8019-43e2-becf-d8a16f7934b9/069c2c3c-bd91-42d1-86b3-e11f3fb8dadf-master.m3u8https://video.igem.org/videos/embed/gos7JrU1K3xnXZg9XoqBrB574022025-11-11T02:23:41.120ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/keYgXhza19NTfup7htSGqdhttps://video.igem.org/lazy-static/thumbnails/950755bd-60c5-412a-a867-e536fb513f41.jpgMars Farm: Sowing New Hope in AdversityWith the advancement of space technology, human migration to Mars may become a reality in the near future. However, the extreme dryness and temperature conditions on the Martian surface make it impossible for Earth's crops to grow normally, jeopardizing human survival. To address this challenge, the WUXI-DSAS team has proposed a solution: endowing plants with tolerance to the Martian environment. By integrating genes with various stress-resistant functions into plants, their ability to withstand extreme conditions is enhanced, thereby reducing the energy and water consumption of plant greenhouses. Ultimately, this could enable plants to be directly cultivated on the Martian surface. Additionally, this technology can be applied to crop cultivation under extreme conditions on Earth. We firmly believe that one day, we will sow seeds of hope on the surface of Mars.https://static.igem.org/peertube/streaming-playlists/hls/9bd0fbfa-1697-40ea-98a2-6793e7c9249c/2cd48ec6-e995-4c2a-af86-c3bd4f20471b-master.m3u8https://video.igem.org/videos/embed/keYgXhza19NTfup7htSGqd481012025-11-11T02:22:26.293ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/ft9JKkQeXNEfqduTDYMj7Qhttps://video.igem.org/lazy-static/thumbnails/2975f7bf-542d-4d3c-864f-78987973b208.jpgDR. sTraTeGY: Engineering Multicellular Yeast for Drug Resistance Mutation TrackingDR. sTraTeGY is built on "Grape Yeast" chassis, designed to track fungal drug resistance mutations. It transforms the evolution of fungi from a static snapshot into an observable spatio-temporal lineage tree. Its current version has two functions: mutation event recording and cell lineage tracing. Our optimized transcription unit - pSTM1-driven EMSfp499, combines a mutation-sensitive promoter with an EMS-resistant fluorescent protein, enabling high-fidelity recording of mutation dynamics. We developed YeastVerse, a modeling and simulation tool, to predict key parameters such as fluorescent protein expression and maturation, which allows dry-lab simulation to guide subsequent wet-lab experiments. In addition, we have established a DBTL cycle that integrates mathematical modeling with AI-assisted reasoning. We engage rare disease communities, through collaborative art and sensory-inclusive activities, fostering an accessible and participatory scientific environment. By integrating synthetic biology, computing, and community engagements, DR. sTraTeGY provides a new strategy to address the global challenge of fungal drug resistance.https://static.igem.org/peertube/streaming-playlists/hls/752a684c-1576-4984-8b42-057f1f262b7c/a4383269-586a-49db-b742-a1e683ba90ee-master.m3u8https://video.igem.org/videos/embed/ft9JKkQeXNEfqduTDYMj7Q538082025-11-11T02:22:40.120ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/rfJoW8tfYt18eStmfeDMT7https://video.igem.org/lazy-static/thumbnails/c6594fdc-32e5-4fc3-891c-8d22fe374e1d.jpgRebuilding Babel: Decode Chaos, Unleash Biosynthetic TreasuresIn the ancient tale of Babel, a unified language shattered into chaos, mirroring DNA's evolutionary fragmentation across trillions of species. This "genetic Babel" hinders discovering Biosynthetic Gene Clusters (BGCs), vast reservoirs of untapped potential hidden in microbes. NJU-China 2025 defies this curse by rebuilding Babel through two towers: the Genetic Tower (BioSHINAR) and the Cognition Tower (Education Space). BioSHINAR leverages AI for a deeper understanding of DNA across three modules—NIMROD for BGC detection, ORACLE for functional prediction, and PENTECOSTA for cluster integration. Validated via DBTL cycles, it excels in mining terpenoid BGCs that elude traditional benchmarks, enabling the discovery of previously unrecognized secondary metabolites. We've completed a robust business plan, with positive company feedback highlighting commercial promise. Complementing this, Education Space enables designing education programs and exchanges to popularize synthetic biology. Through these innovations, we have successfully rebuilt the Tower of Babel of life, unleashing biosynthetic treasures.https://static.igem.org/peertube/streaming-playlists/hls/cc8301a1-b7e3-4abe-b3fb-bd2957f603c0/0a071946-166c-4eb4-9247-a5e1d1f3f660-master.m3u8https://video.igem.org/videos/embed/rfJoW8tfYt18eStmfeDMT75030102025-11-11T02:24:41.678ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cRM8dYfhYy9sadPQD3gzFmhttps://video.igem.org/lazy-static/thumbnails/976a6bd8-3629-450f-85ab-60d0c8edfea7.jpgWhat We Did in HP & EDU?We will showcase projects conducted in the HP and EDU sections, including expert interviews, offline street interviews, community science outreach, and online social media science communication.https://static.igem.org/peertube/streaming-playlists/hls/6007c76b-28c7-4b09-be22-ca59ebf8b4a6/aa3f3b61-c559-4a25-9028-285abc235f1b-master.m3u8https://video.igem.org/videos/embed/cRM8dYfhYy9sadPQD3gzFm416062025-11-11T02:25:20.687ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/rsjYHsBFKwgguEpqKcuNe8https://video.igem.org/lazy-static/thumbnails/6aba66f6-8c4d-4b11-bc46-1eb7a54db5d3.jpgInclusive Design Projects: Why They Matter and How to Do ThemThis talk will cover why inclusive design matters, how to approach such a project, and share our team’s experience developing a wet-lab accessibility tool. iGEM brings together brilliant engineers working on complex synthetic biology challenges, and we want to inspire them to take on inclusive design projects themselves. By applying inclusive design principles, teams can create tools that expand access to science and improve quality of life for people who are often excluded. Our goal is to spark dialogue and provide practical strategies so that iGEM teams worldwide are empowered to launch their own inclusivity-focused projects.https://static.igem.org/peertube/streaming-playlists/hls/ce218001-f938-47dc-a7af-0436c82e46e1/37587d4f-6c28-466b-95e4-dbda67bfc39f-master.m3u8https://video.igem.org/videos/embed/rsjYHsBFKwgguEpqKcuNe8670022025-11-11T02:34:12.178ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/v3w6iD9FepnC9KWz3umt99https://video.igem.org/lazy-static/thumbnails/2b1fe957-eaa5-4fe0-95fd-e9829619e101.jpgAligning Human Practices with Best Practices from Innovation ScienceOver time, iGEM has increasingly advocated for teams to be more cognizant of the societal context of their project, through the Human Practices aspect of the project. This is usually done through stakeholder interviews, which has led to teams focusing mostly on practical improvements. Many innovations face issues other than technological demands, such as economical, societal, industrial, and cultural factors, that are therefore sometimes overlooked. In this presentation, we propose using theoretical frameworks from Innovation Science to identify what products would be beneficial to develop, as well as to identify other factors that influence adaptation of emergent technologies. We will describe multiple concepts that can help iGEM teams establish courses of action for the implementation of their ideas, and provide recommendations on which theoretical frameworks best align with iGEM’s guidelines.https://static.igem.org/peertube/streaming-playlists/hls/eb330d9e-326f-4102-bb02-458af9b1b104/0a302bb6-91e0-44ec-95fe-745b1ea02f61-master.m3u8https://video.igem.org/videos/embed/v3w6iD9FepnC9KWz3umt99414052025-11-11T02:32:05.902ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/v2t5wRtLBkXMsnXiJYJrtmhttps://video.igem.org/lazy-static/thumbnails/8e354433-0e0e-43c6-80ab-83569569ef1f.jpgUsing Hagfish Protein as a Repair Material for SpaceHagfish living in the deep sea produce two special proteins: intermediate filament protein and mucin protein. We use intermediate filament protein as the final aerospace repair material. By simplifying part of the structure of the intermediate filament protein and adding some other biological components, its properties will be further enhanced. By adding the proteins we have made into space equipment and enhancing their properties, Space equipment can repair itself. It has increased the usage time of the equipment.https://static.igem.org/peertube/streaming-playlists/hls/eb0d73d0-c932-419f-af0f-16baf703c1c6/52e6ce45-cdc7-4496-a18b-ca667007887a-master.m3u8https://video.igem.org/videos/embed/v2t5wRtLBkXMsnXiJYJrtm561022025-11-11T02:35:14.967ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7sNN9Xa2tUdb3DJYZx8kc2https://video.igem.org/lazy-static/thumbnails/8b3e45dd-b56e-44e7-9492-5fc5eb040408.jpgPHAntom: PHA Novel Tools for Off-World ManufacturingSince the Mariner 4 flyby, Mars has inspired interplanetary exploration, but high payload costs limit human settlement. Our team proposes PHAntom, a synthetic biology system using engineered E. coli to convert Martian CO₂ into bioplastics and metabolites. Our two-strain E. coli system converts CO₂ into PHBV via an acetate intermediate. Strain 1 autotrophically fixes CO₂ and secretes acetate using the pta–ackA pathway. Strain 2, aided by tdcB/tdcE for propionyl-CoA supply and tesB/yciA to balance 3HB/3HV monomers, converts acetate into PHBV. A bicarbonate-responsive cAMP–CRP mechanism enhances transcription under high HCO₃⁻, while CRISPRi knockdown of gltA diverts acetyl-CoA from the TCA cycle, optimizing acetate production and PHBV yield. Team PHAntom has built a clinostat to simulate non-Earth gravity conditions and an extrusion system to convert PHBV granules into printable filaments. PHAntom enables sustainable off-world biomaterial production through integrated carbon capture, adaptive metabolism, and on-site manufacturinghttps://static.igem.org/peertube/streaming-playlists/hls/34550246-e5ea-4e12-8b9c-bbe755b570d3/e57ff926-28a7-44eb-91c9-14b0896b00ee-master.m3u8https://video.igem.org/videos/embed/7sNN9Xa2tUdb3DJYZx8kc2605012025-11-11T02:36:19.474ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/iBjbJSsLmwjeKFmEsPUtsthttps://video.igem.org/lazy-static/thumbnails/243a3266-9e32-4a30-952b-e844fa65ce89.jpgLessons from Using the iGEM Registry: Data Challenges and OpportunitiesThe iGEM Registry has enabled generations of teams to share their work and inspire new projects. While building BioComplete, a web-based editor powered by generative AI, we turned to the registry to create training datasets. This experience revealed both its value and its limitations: unstructured entries, missing or inconsistent annotations, and duplicated parts complicated data use. In this talk, we will share the lessons we learned while working with the registry, and why we think structured data, validation, and standardization matter for both human users and AI-powered tools. We will also reflect on how our approaches worked and what other ideas might be worth pursuing in the future. By highlighting these challenges and opportunities, we hope to contribute to an ongoing discussion on how the registry can evolve into a more reliable foundation for future iGEM projects.https://static.igem.org/peertube/streaming-playlists/hls/8e99989e-af78-48d5-80cc-cd1438eff99b/3a9fe52a-d1ed-4260-9140-f055f7a9009c-master.m3u8https://video.igem.org/videos/embed/iBjbJSsLmwjeKFmEsPUtst559022025-11-11T02:38:12.900ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/sjsjvwAcW7PffAEg34CtQ8https://video.igem.org/lazy-static/thumbnails/064d5d2a-d7b7-43b7-953f-ea2b64fcb655.jpgBeyond the Lab: Enhancing Projects through Human Practices and Team CollaborationThis Live Stage Talk explores the value and practice of Human Practices (HP): identifying real-world problems, ensuring safety and compliance, and turning projects into real solutions. We share our HP process, cross-disciplinary teamwork experience, and key strategies for doing HP better—start early, engage widely, and measure impact.https://static.igem.org/peertube/streaming-playlists/hls/d5213677-1ec6-41a1-897f-78ea684dd883/ec948d15-811c-490b-a84e-fd67c443d5eb-master.m3u8https://video.igem.org/videos/embed/sjsjvwAcW7PffAEg34CtQ8321022025-11-11T02:37:06.739ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/dMCjJn1SBzED2MQjGD1GD6https://video.igem.org/lazy-static/thumbnails/257c1959-d209-4a66-829a-552d9320cd4c.jpgCancer Uncovered: What People Know, What They Don’t, and Why It MattersCancer is one of the leading causes of death worldwide, yet public understanding of the disease and its treatments is often incomplete or shaped by misconceptions. Our team sought to explore this issue by conducting a survey to analyze what people know — and don’t know — about cancer, the immune system, and available treatment options. Based on the survey results, we are developing an educational presentation to directly address the areas where knowledge gaps are most significant. In this live stage talk, we will present key findings from our survey, highlight the most common misconceptions, and explain cancer biology and treatment strategies in a way that is accessible and engaging for all audiences. Our goal is to not only inform but also empower people with accurate, science-based knowledge, bridging the gap between advanced research and public awareness.https://static.igem.org/peertube/streaming-playlists/hls/678c84b4-4290-4375-a5c6-ed59949afdd7/d9a23267-23d3-401f-96fc-499fd647e8d7-master.m3u8https://video.igem.org/videos/embed/dMCjJn1SBzED2MQjGD1GD6435032025-11-11T02:39:50.029ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8eQBwdKtLnsgYZDoWxMzGehttps://video.igem.org/lazy-static/thumbnails/863454b1-2b7a-4a67-854a-54493555c812.jpgOpening the Lab Doors: Making iGEM and SynBio Accessible for High School TeamsSynthetic biology is often seen as a university-only field, because it may require expensive lab equipment and advanced knowledge. But iGEM experience shows that motivated high school teams can make meaningful contributions—if given the right tools, mentorship, and mindset. In this talk, we, VIS-Romania (High School Team, 2025) will share the behind-the-scenes of our project: an attempt to build a new Alzheimer’s therapeutic platform, initially with no access to labs and no prior scientific research experience. We’ll share how we got started, what were the biggest challenges we faced, how we (tried to) overcome them, and what we would do differently. We would like this talk to be a call to action - for the iGEM community to help empower high-school students who are passionate about science, because they would benefit enormously from the iGEM experience.https://static.igem.org/peertube/streaming-playlists/hls/3a9e991d-6e3b-4d79-a325-4e2ed2cb2b79/db8c2eff-bb79-4ae3-9d44-955bef93bc64-master.m3u8https://video.igem.org/videos/embed/8eQBwdKtLnsgYZDoWxMzGe557042025-11-11T02:42:22.579ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/xyM2pwPkSXCbrfhoH7j7yWhttps://video.igem.org/lazy-static/thumbnails/689c7592-8a4b-487a-a765-13a710c83665.jpgNo Grain, No Gain: Ferulic-Acid-Induced GLP-1 Secretion for Metabolic HealthTo advance sustainable and programmable genetic regulation in synthetic biology, we engineered an orally deliverable microbial platform that functionally couple gene expression to dietary metabolites, embodying the principle of Medicine-Food Homology. By incorporating a ferulic acid-responsive regulatory circuit, our system achieves diet-inducible control of target gene expression under physiologically relevant conditions. A stabilized GLP-1 analogue was employed as a model payload to verify the system’s responsiveness and molecular reliability. Operational safety was ensured through a dual-layer safeguard that integrates an engineered bacterial delivery system and a quorum-sensing-based self-limitation mechanism. Guided by our 5C Human Practices framework, emphasizing co-design and reflective integration, our project demonstrates a responsible and modular approach to system construction. Collectively, this work establishes a versatile and robust platform for translating dietary signals into programmable genetic responses, offering new possibilities for foundational research in metabolic regulation and precision biodesign.https://static.igem.org/peertube/streaming-playlists/hls/ff9ed8a5-3b32-43f6-b212-06f18b4c339e/fc6b01dc-20e1-4dd5-ad0b-08977ee8b970-master.m3u8https://video.igem.org/videos/embed/xyM2pwPkSXCbrfhoH7j7yW6180122025-11-11T02:42:57.435ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5Yb1AYoBBRBHmNhdVuGxinhttps://video.igem.org/lazy-static/thumbnails/54f1917d-608d-4163-9ec9-0c151e500401.jpgThe Hay Fever Situation in Japan and the Possibilities of Citrus JabaraWe would talk about the current situation of hay fever in Japan, and how it is a crucial problem. Also, Jabara has chances to contribute to the community revitalization in Kitayama.https://static.igem.org/peertube/streaming-playlists/hls/283c5ff8-823b-4977-a9cd-882e3f5d0e6b/78c3d761-151e-4049-b601-34d8015e8f01-master.m3u8https://video.igem.org/videos/embed/5Yb1AYoBBRBHmNhdVuGxin4850152025-11-11T02:43:18.137ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/tojAqt3uaHfNVDHEq5wXHnhttps://video.igem.org/lazy-static/thumbnails/d6cb59bc-09cd-412a-b833-1cd8189c108c.jpgBeyond Technofixes and SolutionismNew technologies and scientific breakthroughs often promise to “solve” the world’s biggest problems, from climate change to food insecurity. But many of these challenges are deeply systemic and cannot be fixed by science alone. This talk will explore why it is so necessary to engage with people, societal dynamics, culture, ethics, etc, when pursuing a scientific project. Using the iGEM context, we will dive into better approaches to Human Practices and how to make interdisciplinarity work. The aim is to show how truly collaborative approaches can create more meaningful and lasting impact than technology alone.https://static.igem.org/peertube/streaming-playlists/hls/ddc490bd-f9d7-4c01-8012-59591e3e430b/dc05a28e-6ac0-44f2-ab68-87d5fce18d9e-master.m3u8https://video.igem.org/videos/embed/tojAqt3uaHfNVDHEq5wXHn586082025-11-11T02:52:26.298ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/rrgq58ZFcEAVo3p4Re1yNLhttps://video.igem.org/lazy-static/thumbnails/dd38d55f-12a7-447a-8c7d-179c99bc02f1.jpgPROTEUSWe have successfully developed PROTEUS—a universal AI-driven protein optimization platform based on ESM-2, employing MLM (Masked Language Modeling) for function-oriented fine-tuning. Sequences were categorized into high/low-performance groups based on metrics such as enzymatic activity and thermal stability, and a DMS scoring function was designed to build an intelligent optimization engine. This model can accurately identify key functional sites, perform targeted optimization of low-performance protein sequences (e.g., antimicrobial peptides or industrial enzyme variants), and utilize AlphaFold for structural prediction to validate design rationality. Based on this project, we have developed an open-source software tool that allows users to input a target protein sequence and obtain an optimized solution with one click, providing a universal AI-driven design platform for synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/cdfb8f83-2bef-4748-a1d7-45f272e502c8/71de7ca9-cd6f-46e6-85ea-aa50f6880374-master.m3u8https://video.igem.org/videos/embed/rrgq58ZFcEAVo3p4Re1yNL481022025-11-11T02:50:17.041ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/6BqMaeQXvDWwKgocbKhb4shttps://video.igem.org/lazy-static/thumbnails/2b9da19a-caa8-4537-ad7a-019e5bd85a1d.jpgTheory and Methodology of EB DetectionAn introduction of detection platform and process including construction of plasmid, protein expression and verification.https://static.igem.org/peertube/streaming-playlists/hls/2d6ffee0-4afc-415a-a36b-200227de6160/54520325-9463-443a-a231-392aff79f4e8-master.m3u8https://video.igem.org/videos/embed/6BqMaeQXvDWwKgocbKhb4s483002025-11-11T02:52:42.584ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9t1egTKUcwFRdKkHLf6evPhttps://video.igem.org/lazy-static/thumbnails/8a5b65cf-6607-4d48-ac65-97df77dc507d.jpgFrom Idea to Impact: How Human Practices Redefined Our iGEM ProjectHuman Practices is the bridge that connects a scientific project to the real world. It can have a tremendous impact on an iGEM team’s journey or completely redefine the direction of a project - an experience our team has lived through firsthand. When we began our project Caseinova, we focused on creating sustainable and biodegradable textiles. However, structured and thought-through engagement with society and experts from various fields has led us from environmentally conscious textiles to a composite skin regenerating material. During our Live Stage Talk we want to share our Human Practices journey that has shaped societal, ethical, and practical dimensions of our work to highlight the importance of building science with society, not just for it. We believe our project is a great example of how meaningful engagement with communities and experts can alter the course of an iGEM project, making it more relevant, responsible and impactful.https://static.igem.org/peertube/streaming-playlists/hls/448e5505-3df1-4594-88d7-f3f1a9da897d/27aeb7fb-bc98-4c52-a5db-749630b82a6b-master.m3u8https://video.igem.org/videos/embed/9t1egTKUcwFRdKkHLf6evP568022025-11-11T02:55:21.255ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/b8nEh5krzqcy4Q9srdHNmLhttps://video.igem.org/lazy-static/thumbnails/3d2f5eab-52d9-4776-873b-11a293d272aa.jpgGenOMe: The Genome LEGO Baseplate for iGEM TeamsGenOMe is a next-generation, plasmid-free genome engineering platform that enables iGEM teams to integrate BioBrick components directly into specific E. coli chromosomal sites within just two days, achieving up to 80% efficiency. At its core, Bxb1 integrase mediates precise recombination between chromosomal attB and cassette attP sites, allowing seamless and site-specific DNA integration. The LandingPad module establishes reusable genomic slots that enable multi-round, marker-free insertions, while the GenOMe Parts Collection offers standardized attB/attP modules for scalable and modular construction. Combined with GenOMe Navigator, which predicts optimal integration sites and success rates, this system transforms genome editing into a fast, reliable, and standardized workflow—a true “genome LEGO baseplate” that empowers iGEM teams to build stable, creative, and inheritable genetic architectures, advancing synthetic biology into a new era of genome engineering.https://static.igem.org/peertube/streaming-playlists/hls/5202f100-2c64-4ce8-afba-4b5161cbb774/78fc4296-ce4a-4821-9bd9-a636261bc776-master.m3u8https://video.igem.org/videos/embed/b8nEh5krzqcy4Q9srdHNmL616052025-11-11T02:57:43.808ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/soEioVE8Rh4h6BRrtvr13Qhttps://video.igem.org/lazy-static/thumbnails/f238609c-db3e-401f-8840-30c57555b92c.jpgPhage Therapy: Evolving Solutions for Biofilm-Driven InfectionsPhage therapy harnesses the natural enemies of bacteria—bacteriophages—to target drug-resistant strains and disrupt stubborn biofilms, which are responsible for persistent infections in wounds and medical devices. This session explores how phage cocktails and personalized phage selection can co-evolve with bacterial defenses, providing dynamic and adaptive treatment options where antibiotics often fail. The talk highlights the molecular strategies phages use, including depolymerase enzymes for biofilm degradation, mechanisms for synergy with antibiotics, and approaches to overcome efflux pump-mediated resistance. Real-world challenges, such as regulatory hurdles, narrow host range, and immune responses, will be discussed alongside opportunities like AI-driven phage selection and phage-antibiotic combined therapies.https://static.igem.org/peertube/streaming-playlists/hls/d5b7923e-4ab6-4e66-a6b3-9a315f9d8cfc/3fb886b4-5f07-4cf5-a4b6-a09e5e491517-master.m3u8https://video.igem.org/videos/embed/soEioVE8Rh4h6BRrtvr13Q396042025-11-11T02:56:09.822ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eKMouqsCQUfWYBcdf2kJBphttps://video.igem.org/lazy-static/thumbnails/8e4eae2b-54fb-48ff-87e1-d4694238c315.jpgWe Weaving Responsibility by Connecting PerspectivesOne question guided our entire Human Practices journey: “How does our project affect society, and how does society influence the direction of our project?" For us, this wasn't just a competition criterion. It was a compass. And today, I want to share the map we drew while searching for the answer. Our map has a name: PhAgri-cycle. Here is our rational process: from Purpose, to Hammering the design, to Assembling the event, Gauging the outcome, Reflecting on the learnings, and Iterating for the future. It's how we gave structure to our curiosity. With this framework, we embarked on a journey to “connect”.https://static.igem.org/peertube/streaming-playlists/hls/6f63c182-0601-4031-8e0d-b08a3d2c3635/f526e8c4-9809-4baa-8a91-73a2225a9328-master.m3u8https://video.igem.org/videos/embed/eKMouqsCQUfWYBcdf2kJBp5160222025-11-11T02:58:43.723ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1CLzBEdgb8iuGD1z7kKC8Khttps://video.igem.org/lazy-static/thumbnails/e0d6d3d5-0897-4200-9cac-197f1eebe59e.jpgApplications of Nanomaterials in Bacterial DetectionNanomaterials, with their unique optical, magnetic and electrochemical properties, exhibit outstanding sensing performance. Compared with traditional methods, these materials have significant advantages in being able to rapidly, sensitively and specifically detect extremely low concentrations of bacteria, while traditional culture methods take several days. In this presentation, we will introduce the application prospects of nanomaterials, including their advantages in bacterial detection.https://static.igem.org/peertube/streaming-playlists/hls/05223fb4-dc39-445c-bbd2-646ba6ae44b9/d1d2175d-ceb7-4c8a-8a64-e0b80be30619-master.m3u8https://video.igem.org/videos/embed/1CLzBEdgb8iuGD1z7kKC8K565022025-11-11T03:00:16.183ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/otZbPc4uEn4H2itKEYUMzEhttps://video.igem.org/lazy-static/thumbnails/3b33047b-04da-46ee-98c8-418156db54ef.jpgMeet the Therapeutics Village CouncilJoin us for an engaging session where you’ll get to know the team behind the Therapeutics Village and the vision driving it forward. The Council will share both short-term and long-term plans, and you’ll have the chance to contribute your ideas and suggestions to help shape the future of the village.https://static.igem.org/peertube/streaming-playlists/hls/b6115fec-c8c2-4833-8e35-c63bb588d794/7d182d28-9ffd-4594-a661-d1c31d8bd422-master.m3u8https://video.igem.org/videos/embed/otZbPc4uEn4H2itKEYUMzE500002025-11-10T19:48:34.343ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/crq8v97qUfKtZTGi9MJyf4https://video.igem.org/lazy-static/thumbnails/4ef91737-6aae-4bf1-977e-e55773763821.jpgAdipocyte for Breast Cancer Surveillance(ABCS)Adipocytes can be transformed into cancer-associated adipocytes (CAAs) by cytokines from cancer cells. As CAAs demonstrate distinct gene expression pattern, we aimed to engineer adipocytes that could report such pattern. Systematic analysis revealed that the optimal combination to identify CAAs is PLOD2 and LIF, which could be induced by PAI-1 and CXCL8 respectively. We designed a RADAR sensor that targets the transcripts of PLOD2 and LIF simultaneously and delivered this sensor into differentiated adipocytes. These engineered adipocytes responded to the combined stimulation of PAI-1 and CXCL8 only. Most importantly, these engineered adipocytes responded to the treatment of the conditioned medium from breast cancer cells, revealing the potential of these adipocytes to respond to actual cancer microenvironment. We chose Gaussia luciferase (Gluc), an enzyme to generate luminescence, as output reporter. As Gluc could be secreted into urine, it offers a convenient way to report the results of in vivo cancer monitoring.https://static.igem.org/peertube/streaming-playlists/hls/5ca0fd60-5815-4739-bf28-61cd7dcb9a4f/5c1d0147-f4d9-4b32-b86a-b8b3ceaebea3-master.m3u8https://video.igem.org/videos/embed/crq8v97qUfKtZTGi9MJyf46450242025-11-11T03:04:38.353ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/gS8PtixhWr4YURadnmUsdehttps://video.igem.org/lazy-static/thumbnails/24f57788-27a0-46f0-a686-d657e4469f0a.jpgAn Inhalable Probiotic Platform for RNA-Mediated Silencing for Asthma ManagementAsthma is a very common respiratory disease, its severe form is often characterized by uncontrolled or corticosteroid-resistant inflammation. To overcome this, we developed PRESS, a modular therapeutic platform combining a probiotic delivery system (Lactobacillus plantarum) with an siRNA-based silencing tool (CO-BERA) targeting the inflammatory alarmin TSLP mRNA. Our engineered L. plantarum senses airway inflammation through dual inputs (Hydrogen peroxide and acidic pH) and, upon activation, synthesizes CO-BERA to silence TSLP and suppress downstream inflammatory pathways. For efficient administration, we designed a dry-powder inhalation system, optimized by computational fluid dynamics and validated for aerosol behavior and bacterial viability. PRESS adapted multi-layered biosafety measures, including a toxin–antitoxin kill switch to ensure containment. Reinforced by modeling-guided design and educational outreach with achieving eight UN SDGs. PRESS showcasing how engineered probiotics can function as living inhalable therapeutics, providing a safe, sustainable, and targeted solution for asthma and other inflammatory lung diseases.https://static.igem.org/peertube/streaming-playlists/hls/80791631-cf6e-4cca-b56c-a3bca3549e6d/aadcd987-2e8a-452b-bf9d-240e179186e3-master.m3u8https://video.igem.org/videos/embed/gS8PtixhWr4YURadnmUsde6370182025-11-11T03:05:57.786ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/dKRbivotv7pMjaRdebW3Tohttps://video.igem.org/lazy-static/thumbnails/49581eed-53e7-47ce-96b2-32d1db91bd35.jpgHydroGuardCatheter associated urinary tract infections (CAUTIs) are the most common hospital infection, disproportionately affecting vulnerable populations such as those in long-term care homes or the critically ill. While the standard treatments for these infections rely primarily on antibiotics, the increasing prevalence of antimicrobial resistant infections demands for an alternative solution. To combat this issue, we have developed HydroGuard, a biocompatible, infection-responsive hydrogel with controlled phage release. Our hydrogel, made up of gelatin methacryloyl, degrades in the presence of gelatinase (gelE), a protein naturally produced by E.faecalis during infection. The degradation of gelatin in the hydrogel releases the embedded phage cocktail, which targets and eradicates the biofilm. Using a combined wet-lab and computational approach, our work demonstrates the viability of this solution by incorporating the gelE gene into E.coli for lab-safe proof of concept solution.https://static.igem.org/peertube/streaming-playlists/hls/674cf3eb-99ae-47d7-964d-ed9818bcbc9c/a75be7c5-1a6b-4fef-a591-b404628587fc-master.m3u8https://video.igem.org/videos/embed/dKRbivotv7pMjaRdebW3To634012025-11-11T03:15:57.918ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cZhRAgEMEXXZpAitLJ9VyJhttps://video.igem.org/lazy-static/thumbnails/0c99fc9e-b1af-4aa1-ac92-f89711d795da.jpgLacbutlerLactose intolerance, a prevalent global condition, causes symptoms like diarrhea and abdominal pain due to lactase deficiency in the gut. Current dietary management lacks long-term efficacy and impacts life quality. We propose a sustainable synthetic biology-based therapy using engineered Bifidobacterium. This strain is modified with a optimized bgaB lactase and LacY lactose transporter for efficient lactose metabolism. It also incorporates a genetic circuit with a deoxycholic acid-inducible MucBP adhesion protein and an AI-2/CcdB-mediated population control system. This design enables stable colonization at an appropriate density, ensuring continuous lactose breakdown for long-term management of lactose intolerance.https://static.igem.org/peertube/streaming-playlists/hls/61144eb3-3331-47b8-9e71-ca6c7d686c7e/eae6592e-a659-4272-b653-f6efe3244eec-master.m3u8https://video.igem.org/videos/embed/cZhRAgEMEXXZpAitLJ9VyJ656092025-11-11T03:18:39.441ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/trTEpJ6vRpb2dAy4mqPMfdhttps://video.igem.org/lazy-static/thumbnails/d1eda78b-d4da-46f6-8054-531b654313db.jpgCrypto-Knight: A Novel Point Of Care Colourimetric Diagnostic Test For Cryptosporidiosis Based On...One of the most neglected tropical diseases, Cryptosporidiosis kills an estimated 200,000 children every year and 10 million disability adjusted life years lost annually. It is caused by a parasite, and spreads through infected water samples globally. Current methods, such as qPCR, are expensive, unreliable and affected by inhibitors in faecal samples, with the most common methods having a sensitivity of around 40-60%. Using Loop Mediated Isothermal Amplification, we designed a novel point of care diagnostic for the 18s rRNA of Cryptosporidium, designing an efficient primer set, and four new fusion Bst polymerases, with subdomains designed to increase reverse transcriptase activity, thermostability and inhibitor tolerance. Targeting 18s rRNA allows the test to detect 1 oocyst/gram of faecal sample (compared to qPCR’s 300/gram). Results are shown colourimetrically for easy use. With our model and education work, we made the test even more accessible. It's time to shine a LAMP On Cryptosporidiosis!https://static.igem.org/peertube/streaming-playlists/hls/de442d11-6eaa-4d03-88a0-9abf75488aa4/cdb569ac-eeb4-47e7-9dd5-02fb2470837f-master.m3u8https://video.igem.org/videos/embed/trTEpJ6vRpb2dAy4mqPMfd6080262025-11-11T03:19:03.024ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5tb4zXf69wV19iTxDVVw4Yhttps://video.igem.org/lazy-static/thumbnails/b7971b66-60bd-4811-b402-c54acc66b738.jpgMeowTrack: A Probiotic Platform for Feline Gut HealthCats are among the most popular companion animals worldwide, yet many of their health issues remain undiagnosed due to subtle symptoms and limited diagnostic tools. Inflammatory Bowel Disease (IBD), often aggravated by hairball accumulation, is a prevalent chronic condition that compromises digestive health. To address this, we developed MeowTrack, a programmable therapeutic probiotic platform that detects, treats, and records feline gut health. The system senses taurocholic acid (food intake) and calprotectin (IBD biomarker) and integrates these inputs through an AND logic gate, ensuring responses occur only under disease conditions with food available. Upon activation, MeowTrack expresses keratin-degrading enzymes to remove hairballs, butyrate-producing enzymes to restore gut balance, and chromoproteins or fluorescent proteins to visualize disease states in feces. Additionally, a Retro-Cascorder module records transcriptional events linked to inflammation, while a smart litter box equipped with fluorescence detection enables seamless, at-home monitoring of feline gut health.https://static.igem.org/peertube/streaming-playlists/hls/242fd655-b065-4eb7-865a-df306cb66c16/741184c4-269a-4223-ad0d-d5e3307e3a2c-master.m3u8https://video.igem.org/videos/embed/5tb4zXf69wV19iTxDVVw4Y654092025-11-11T03:21:57.302ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/x5f7r4e5qx9gtdfDvpKvHmhttps://video.igem.org/lazy-static/thumbnails/3602b522-11d1-4ffe-8519-2366964ea341.jpgXylegoWe developed Xylego, an engineered E. coli Nissle 1917 designed as a low-burden synbiotic therapy for Inflammatory Bowel Disease (IBD). Xylego integrates three key modules: (1) Colonization support – enables selective growth using xylitol, reducing administration frequency; (2) Mucosal healing – secretes epidermal growth factor (EGF) to promote epithelial repair and break the inflammatory cycle; and (3) Inflammation-dependent kill switch – a tetrathionate-sensing restriction–modification system that self-destructs after inflammation resolves, preventing long-term risks and antibiotic gene transfer. Xylego is expected to enhance remission rates, improve adherence, and provide a safe, adaptable platform for patient-tailored probiotic therapies.https://static.igem.org/peertube/streaming-playlists/hls/fba2f83d-82a7-4879-8fe6-44c72e7bbafa/dd40e7a0-8e1d-4e7b-aad8-e0c3f1c87de1-master.m3u8https://video.igem.org/videos/embed/x5f7r4e5qx9gtdfDvpKvHm607022025-11-11T03:24:09.092ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8p8iy84dXP3SNffEcY3V1ahttps://video.igem.org/lazy-static/thumbnails/03b4dc11-d3b2-45a3-9596-abde29e6b975.jpgTroGen: A Commensal Bacterial Platform for Intracellular Drug Delivery in TNBCTriple-negative breast cancer (TNBC) is the most aggressive subtype, with rapid progression, poor prognosis, and no effective targeted therapies, highlighting urgent need for new strategies. Building on Prof. Shang Cai’s work on intracellular commensal bacteria—especially the tumor-targeting potential of Staphylococcus—we developed TroGen, an intracellular delivery platform using engineered commensals. To enhance invasion, we introduced the `fnbA` gene into non-pathogenic Staphylococcus to express S. aureus FnBPA, exploiting integrin-mediated endocytosis for efficient TNBC entry. Two biosafety modules confine bacterial survival and therapeutic payload expression to the tumor microenvironment. Using AlphaFold-Multimer, MD, MM/PBSA, and phylogenetic analysis, we selected the optimal FnBP from multiple candidates. We formulated a reaction–diffusion–convection coupled PDE and used COMSOL Multiphysics to simulate intratumoral bacterial diffusion. Human Practices informed iterative design, and outreach activities fostered scientific curiosity.https://static.igem.org/peertube/streaming-playlists/hls/3bea93e7-5ebb-48eb-b0c9-ad0205a2b8ad/37d9d322-15a9-4d0f-b415-8f5e32d30b18-master.m3u8https://video.igem.org/videos/embed/8p8iy84dXP3SNffEcY3V1a5380132025-11-11T03:23:33.105ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qm4hrNvHHH9kSDGGRjtH17https://video.igem.org/lazy-static/thumbnails/8c7ccbc6-18dd-4bfe-89fb-e2acfc5deaf9.jpgAntitumor Immunotherapy Using Guanylate Cyclase-Based Engineered Bacteria to Target the STING Pat...Colorectal cancer (CRC) is characterized by an immunosuppressive, hypoxic tumor microenvironment (TME) dominated by M2 macrophages. To address this, we engineered the probiotic E. coli Nissle 1917 (EcN) as a targeted living therapeutic. Our engineered auxotrophic EcN strain incorporates two synthetic genetic circuits: a hypoxia-responsive plasmid for tumor-specific production of the STING agonist c-di-GMP, and a synthetic "suicide" circuit for AHL-inducible bacterial lysis and payload release with essential metabolic gene thyA and dapA knockout. This triple system ensures precise immune activation within the tumor and provides a crucial biocontainment mechanism. We further developed a mathematical model to simulate AHL diffusion and its kinetic relationship with therapy, and designed a gut-on-a-chip device for physiologically relevant testing. This work establishes a safe, modular platform for targeted CRC immunotherapy.https://static.igem.org/peertube/streaming-playlists/hls/c5283a0e-cc05-4085-8494-051c2e50fec2/647ef820-180d-48d2-adaa-9d82a774add7-master.m3u8https://video.igem.org/videos/embed/qm4hrNvHHH9kSDGGRjtH17593032025-11-11T03:26:46.686ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/dZVt4Lz1bSiuv6WK1KNs1rhttps://video.igem.org/lazy-static/thumbnails/80b29c61-f61d-4128-9dd2-9cfaa6d8c984.jpgSnaccineSnaccine is a novel type of vaccine, ideal for vaccinating chickens against avian influenza (bird flu). Genetically modified bacteriophages are taken orally, in a stomach acid-resistant pill. They reproduce inside gut bacteria, while also producing RNA packaged within armour (an MS2 virus-like particle coated with cell-penetrating peptides). This RNA enters (eukaryotic) host cells and works just like an mRNA vaccine, tricking the cell into producing an antigen. This antigen is detected by the immune system and teaches it to recognise and fight the original pathogen. Snaccines share many of the same advantages that mRNA technology has over traditional vaccines. But where typical mRNA vaccines have to be kept in freezers, Snaccines can be stored and transported at room temperature. Together with their cheaper production and oral administration route, Snaccine is an ideal technology for fighting bird flu.https://static.igem.org/peertube/streaming-playlists/hls/69440240-7342-4df7-ac44-29c170602d61/5f4439bc-8516-479e-a148-08b5c42e8656-master.m3u8https://video.igem.org/videos/embed/dZVt4Lz1bSiuv6WK1KNs1r603012025-11-11T03:28:48.313ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qpQvBDgjcTSFeDcuyyNC3Uhttps://video.igem.org/lazy-static/thumbnails/7c40ac4e-69c2-4d82-a7f1-ccf57de0584e.jpgTotally [Fe]rociousAntimicrobial resistance is currently a major global health crisis. To counter this issue, alternatives to antibiotics must be developed. One promising strategy involves the use of siderophores, iron-chelating molecules naturally synthesized by bacteria. We aimed to hack this system by adding a gold nanoparticle to one of Klebsiella pneumoniae’s siderophores, aerobactin. These nanoparticles can then be activated with NIR lasers to kill bacteria. Our team focused on cloning aerobactin in Escherichia coli. We also performed in silico analyses to optimize aerobactin biosynthesis and deepen our understanding of the siderophore’s internalization by K. pneumoniae. A genome-scale metabolic analysis of aerobactin’s citrate production, along with biomolecular modeling of the TonB-dependent transporter embedded in the gram-negative bacterial membrane, was conducted. The next steps of this project would involve the synthesis of gold nanoparticles followed by their conjugation with aerobactin.https://static.igem.org/peertube/streaming-playlists/hls/c5af548c-54d0-4896-9be8-23c76b6cf868/27282cd7-0322-4e73-b8a2-ae1f96ad7808-master.m3u8https://video.igem.org/videos/embed/qpQvBDgjcTSFeDcuyyNC3U523062025-11-11T03:29:48.861ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/ejwQyVpgGggc6CDNByknzbhttps://video.igem.org/lazy-static/thumbnails/ebed0673-61d9-44ac-ba5b-902dbc4dd542.jpgOncoligo: Modular Antisense Oligonucleotide Lung Cancer TreatmentLung cancer is the leading cause of cancer-related deaths worldwide, and many patients still lack effective long-term treatment options. Oncoligo introduces a modular therapeutic platform that harnesses antisense oligonucleotides (ASOs) to selectively silence essential cancer genes within a synthetic-lethality framework, enabling the targeting of tumor-suppressor-driven and intracellular cancers. Our computational pipeline integrates molecular dynamics, machine learning, and algorithmic optimization to design all parts of the platform. We specifically design potent ASOs, which are conjugated to antibodies for targeted delivery. Within each antibody, tumor-associated epitopes stimulate immune activation and memory. Experimentally, our designed ASOs outperform commercial ones, showing superior knockdown at the mRNA, protein, and cellular levels. In parallel, we optimized antibody expression systems and developed a dedicated software tool that facilitates ASO design across diverse genes and organisms. By uniting synthetic biology, computation, and entrepreneurship, Oncoligo pioneers a versatile, scalable framework for precision oncology - redefining how we treat cancer.https://static.igem.org/peertube/streaming-playlists/hls/6bdd31d4-4f00-4edc-8829-8c870072c150/eeed48cf-53c4-4724-a18f-9e782967368b-master.m3u8https://video.igem.org/videos/embed/ejwQyVpgGggc6CDNByknzb711052025-11-11T03:33:58.749ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/akoY3j7NKAJerV1xaSJw8shttps://video.igem.org/lazy-static/thumbnails/49ab9d8a-3d0a-4a89-99d0-6443bd8bb36a.jpgNRPieceS - Unlocking Nature's Antibiotic ToolboxWe present NRPieceS, a versatile synthetic biology platform for rapid generation of large non-ribosomal peptide (NRP) libraries with minimal cloning effort. By integrating advanced NRPS engineering techniques, NRPieceS enables efficient combinatorial biosynthesis of potential bioactive peptides. The platform encompasses a complete Design-Build-Test-Learn workflow, including heterologous expression, derivatization, activity screening, and computational guidance through our software mATChmaker. The accompanying plasmid collection (160 plasmids, including 35 donor constructs) facilitates modular NRPS assembly and rational engineering. mATChmaker models and visualizes native and hybrid NRPS condensation complexes, providing structural and phylogenetic insights to guide module compatibility and design. Using NRPieceS, we generated and screened peptide libraries against ESKAPE pathogens, identifying antimicrobial hits. Furthermore, a Trojan horse strategy employing siderophore conjugation via click chemistry might enhance bacterial uptake. NRPieceS unites wet-lab and computational tools in a sustainable framework, accelerating antibiotic discovery and enabling accessible NRPS engineering for the broader research community.https://static.igem.org/peertube/streaming-playlists/hls/4b978872-736d-4a6a-8f3c-5973c2158af8/b4898c74-04da-46ea-8ecb-12f125a6e073-master.m3u8https://video.igem.org/videos/embed/akoY3j7NKAJerV1xaSJw8s631082025-11-11T03:43:10.883ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9M57AaLVmC4swPWZVFEC21https://video.igem.org/lazy-static/thumbnails/9bf38177-5da5-4b6b-bf81-efc9f10fb89b.jpgGluClearGluClear addresses the challenge of accidental gluten exposure, a major concern for individuals with celiac disease and gluten sensitivity. Our project focuses on Bga1903, a naturally gluten-degrading enzyme found in bacteria, and improves its stability and efficiency under gastrointestinal conditions through in silico modeling and protein engineering. By optimizing multiple variants and expressing them for experimental validation, GluClear aims to ensure reliable degradation of trace gluten introduced through cross-contamination. With this approach, GluClear has the potential to support a safer daily life for patients, offering a practical and innovative solution that reduces health risks and increases confidence in food safety.https://static.igem.org/peertube/streaming-playlists/hls/47141d31-0630-4d57-9272-c2fd3bd8e90a/a904cbae-f361-4dcc-94e5-341de845688d-master.m3u8https://video.igem.org/videos/embed/9M57AaLVmC4swPWZVFEC21651032025-11-11T03:44:58.234ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/bdJMtwZxYWFJubb21j6WNahttps://video.igem.org/lazy-static/thumbnails/ec4eebea-43a0-46da-a43f-3bbc88aab109.jpgInara - Illuminating Early Pregnancy and MiscarriageThe majority of miscarriages, such as those resulting from genetic abnormalities in the miscarried fetus, are explainable. But in a significant number of cases, even scientists don’t have all the answers to why miscarriage happens - partially due to stigma that drives women into silence and inhibits research. Progesterone, a female sex hormone whose levels exhibit within-day variability, is correlated with miscarriages, but no technical platform exists to monitor these levels in real time. We aspire to illuminate early pregnancy and miscarriage by developing such a platform using synthetic biology – specifically, impedimetric aptamers. We anticipate that this platform will expand women’s health research, empowering women with better health tools and more opportunities for self-advocacy in early pregnancy. We validated our chosen bio-impedimetric aptamer system beyond the extent of existing literature. We developed hardware, human practices, and a business plan to minimize technical and market risk and maximize ethical impact.https://static.igem.org/peertube/streaming-playlists/hls/52c2adae-9e67-4091-b445-9f814902ef35/9d043db3-8486-472a-b2a7-4c577003c2ed-master.m3u8https://video.igem.org/videos/embed/bdJMtwZxYWFJubb21j6WNa592012025-11-11T03:47:03.465ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7ukXWkrbN7HMcmz5KuYwfjhttps://video.igem.org/lazy-static/thumbnails/842f30e8-6306-4d62-a870-012d87b15f77.jpgAD-TMA Brain-Gut Axis Engineered Yeast Therapy: Neuroinflammation Regulation Based on TAAR5 ReceptorConventional therapies for Alzheimer's Disease (AD) show limited clinical efficacy. Emerging evidence suggests neuroinflammation driven by the primary genetic risk factor, APOE4, is more fundamental. In this study, an active engineered living therapy (ELT) targeting neuroinflammation was systematically designed through the gut-brain axis system. We engineered Saccharomyces cerevisiae for intelligent AD prevention and early intervention. The system's core is a high-specificity AND-gate sensor that identifies two biomarkers in the intestines of early-stage AD patients (including MCI): reactive oxygen species (ROS) and trimethylamine (TMA), then activates a five-enzyme butyrate synthesis pathway comprising four heterologous enzymes. To ensure long-term safety, a pro-apoptotic protein Bax based elimination mechanism is integrated as well. Finally, we integrated multi-scale computational models to systematically evaluate the design's credibility, feasibility and therapeutic efficacy in silico. This sense-compute-actuate design philosophy promises to be a platform technology applicable to an innovative prophylactic and therapeutic AD strategy and other disorders.https://static.igem.org/peertube/streaming-playlists/hls/348bf606-6f9d-4a81-b6a1-5932c2a7f756/b4a4a7f2-33e9-4b58-b0b3-971100a50c7b-master.m3u8https://video.igem.org/videos/embed/7ukXWkrbN7HMcmz5KuYwfj552062025-11-11T03:46:33.241ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/hMvUBvsozmYR92xDTAX6bohttps://video.igem.org/lazy-static/thumbnails/0bfa8429-27b9-46f7-8cad-6a1d1e95a61f.jpgHow Does Participating in iGEM Contribute to the Personal Growth of StudentsMainly talk about my personal experience in IGEM, how I learn from taking part in IGEM and grow from a student who knows nothing into one of the IGEM student leaders. Most importantly, how what kind of personal growth can IGEM allow for IGEMers.https://static.igem.org/peertube/streaming-playlists/hls/87ed1e7e-9b16-43e4-ae80-16be8a58cf66/f4f0a626-1395-4449-9bac-e670266b82bd-master.m3u8https://video.igem.org/videos/embed/hMvUBvsozmYR92xDTAX6bo574052025-11-11T03:50:04.107ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/wEEswA5sf4rQ6BC1ZKeC81https://video.igem.org/lazy-static/thumbnails/b6ef7e3a-352b-46bc-929a-dd658db0421e.jpgCareer Deep-Dive: Academic vs. Industry PathwaysThe session brings together professionals from both academia and industry to explore the opportunities, challenges, and evolving landscape of scientific careers. The discussion offers perspectives on how career goals and values shift over time, with individuals sharing insights on navigating change, transferring skills, and finding fulfillment across sectors.https://static.igem.org/peertube/streaming-playlists/hls/f8581f8d-a4f8-4545-af06-9ab621b307fe/25c3aefe-0fe0-40c6-858a-c6a2e1071dc2-master.m3u8https://video.igem.org/videos/embed/wEEswA5sf4rQ6BC1ZKeC812147012025-11-10T20:15:21.980ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/5HGJsXpfb4AhyauXzE5CuKhttps://video.igem.org/lazy-static/thumbnails/0ce0a4ad-fe0d-43ed-9f38-6f6bca36ec37.jpgHelix: Revolutionizing Large Group Workflows Through Interconnected CyclesTraditional large group decision-making often stalls on detail-oriented tasks. We created Helix: five interconnected "cycle" groups simultaneously tackling different project aspects with unprecedented depth and focus, each contributing specialized expertise toward our collective project vision. Each cycle focused on distinct goals requiring validation before advancement. Although groups operated simultaneously, their interdependent structure created dynamic workflows where progress depended on integrating findings from other cycles. This naturally built-in quality checkpoints, ensuring alignment. We will explore the critical success factors that emerged: establishing clear communication pathways between specialized groups, developing strong expertise within cycles, maintaining flexibility to adapt when dependencies shifted or unexpected challenges arose, and implementing oversight structures that preserved both cycle independence and project coherence. Helix proved that deliberately designed interdependence catalyzes rather than constrains creativity, converting overwhelming complex challenges into structured, achievable milestones while preserving collaboration and forward momentum.https://static.igem.org/peertube/streaming-playlists/hls/263726ba-ece1-48fa-8b0a-2e5f1f6828f3/5cfc8d0b-b36f-47ba-adb2-03cd1f871524-master.m3u8https://video.igem.org/videos/embed/5HGJsXpfb4AhyauXzE5CuK615032025-11-11T03:52:37.386ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8629aXRKujt4qhTw3koUzphttps://video.igem.org/lazy-static/thumbnails/0f26ea5c-0c95-47e4-8b13-8cc00dbe0c8c.jpgAn Undergraduate's Guide to Save Your PI MoneyThis speech is to share our experience working in an unfamiliar lab. Due to unforeseen circumstances, our lab was inaccessible until early June. Thus, we were thrust into a completely foreign laboratory with limited time. In a disorganised lab where equipment could be found anywhere and wacky reagents collecting dust in a corner of a cabinet, we want to share our stories of creating financial and technical workarounds to problems which may not be found in your average lab.https://static.igem.org/peertube/streaming-playlists/hls/3963647f-7848-43fd-9509-46effca46cc1/c116f160-48e5-4763-8998-9d29227ad934-master.m3u8https://video.igem.org/videos/embed/8629aXRKujt4qhTw3koUzp576052025-11-11T03:54:02.140ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/rqichZjjKFCmqf3xt3Df7Phttps://video.igem.org/lazy-static/thumbnails/29424a93-876c-4108-9178-33c43dad60b4.jpgSTRAWTOPIA: Weaving the Future from Straw — A High School Team's Five-Month Odyssey in iGEMThis talk recounts the formidable journey of team LINKS-China as we endeavored to engineer yeast to purify cellulose from straw for textile spinning, enhanced with structural proteins. Confronted with relentless setbacks—including persistent plasmid loss and rampant contamination—our team navigated five months of intense trial and error that tested our resolve. Pushing through fatigue and frustration, we persevered until the final moments before the wiki freeze. Join us to hear how we confronted the immense challenges of a large-scale synthetic biology project, transforming scientific rigor and sheer tenacity into a compelling story of resilience.https://static.igem.org/peertube/streaming-playlists/hls/cdd8e9e1-4008-4114-92c4-1039afed580b/9f8cd439-46c5-4426-a401-af63506fc5f5-master.m3u8https://video.igem.org/videos/embed/rqichZjjKFCmqf3xt3Df7P531052025-11-11T03:55:08.279ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/bGNcCfh85zvdZEjiQ7ponKhttps://video.igem.org/lazy-static/thumbnails/917fc4b0-f4e0-4a51-992b-4b4b9dd57877.jpgSynBio Communities Around The World - Part IITo make synthetic biology a major field of study in the twenty-first century, it is necessary to engage the general society in the scientific conversation, and together overcome problems with financing models, commercial translation of technologies, public perception, and laws. To achieve a more diverse representation of the synbio landscape, we see the need for international collaboration and knowledge sharing. Engaging regional leaders, representing SynBio organisations, to develop best practices for our international community; and understanding the current local challenges and what we can collectively do to overcome them. Above all, it’s important to enhance strong collaborations between the organisations, promoting an inclusive model, ready to embrace the future of SynBio, together.https://static.igem.org/peertube/streaming-playlists/hls/56ad9c03-5efe-42ec-ac64-f5b972dfdb3d/80e2d3cd-af4e-4dda-9506-1d71619e391d-master.m3u8https://video.igem.org/videos/embed/bGNcCfh85zvdZEjiQ7ponK3073022025-11-10T21:13:05.996ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/uEdkPjq9qLt5oR8bPJrqRThttps://video.igem.org/lazy-static/thumbnails/f063ad50-810c-4959-8d59-f365a338c1b0.jpgRESPIRA: Responsive Engineered Strain for Polymicrobial Infection Recovery in AirwaysVentilator-associated pneumonia (VAP) arises when antibiotic-resistant bacteria form biofilms on endotracheal tubes, shielding pathogens from treatment. RESPIRA is a Bacillus subtilis-based living therapeutic engineered to detect and dismantle these biofilms at their source. Triggered by pathogen quorum-sensing signals, RESPIRA activates a synthetic gene circuit that drives secretion of enzymes to degrade the biofilm matrix, restoring bacterial susceptibility to antibiotics and immune attack. Our team integrated wet lab, modeling, and ethical design. We assembled quorum-sensing circuits, optimized B. subtilis transformation, and built clearFoam, an open-source reaction–diffusion simulator linking gene-circuit activation to biofilm degradation and BioBrick parameters. Sensitivity analysis and experimental diffusion data validated this framework. Guided by clinicians and ethicists through a responsible research framework, we prioritized receptor-based circuit feedback, gel delivery, and biocontainment. Together, these innovations make RESPIRA a programmable, safe, and clinically informed therapy that converts biofilm infections from persistent to treatable.https://static.igem.org/peertube/streaming-playlists/hls/e815c065-c734-4767-99eb-d6f0ad73ee95/2d31f182-5b26-4185-b0af-6d4ad4a34634-master.m3u8https://video.igem.org/videos/embed/uEdkPjq9qLt5oR8bPJrqRT611062025-11-11T03:57:48.274ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9rkTch8QCXXJZ3PfkvLD24https://video.igem.org/lazy-static/thumbnails/cfa97692-9192-44c0-9f2b-bc6b3b9f45af.jpgSynBio Communities Around The World - Part IIITo make synthetic biology a major field of study in the twenty-first century, it is necessary to engage the general society in the scientific conversation, and together overcome problems with financing models, commercial translation of technologies, public perception, and laws. To achieve a more diverse representation of the synbio landscape, we see the need for international collaboration and knowledge sharing. Engaging regional leaders, representing SynBio organisations, to develop best practices for our international community; and understanding the current local challenges and what we can collectively do to overcome them. Above all, it’s important to enhance strong collaborations between the organisations, promoting an inclusive model, ready to embrace the future of SynBio, together.https://static.igem.org/peertube/streaming-playlists/hls/4452f4e7-6db3-45b1-becc-6e92bf5c3c01/4751a447-d358-409d-a8d5-a75e94eeba26-master.m3u8https://video.igem.org/videos/embed/9rkTch8QCXXJZ3PfkvLD242817002025-11-10T21:07:27.692ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/5f2SJZcpMTf1R3YmAEwqCWhttps://video.igem.org/lazy-static/thumbnails/1fdc7085-73d2-40ec-bb4c-65e531549d8d.jpgBreaking Down Barriers in Science CommunicationSciComm Made Easy is a content series designed to demystify Science Communication and make it approachable for all. Through casual conversations, personal stories, and expert insights, the series creates a welcoming space for learning, reflection, and collaboration.https://static.igem.org/peertube/streaming-playlists/hls/225a1f72-27d0-493b-ac3e-46b33074090e/8a44f91f-b6a2-4e08-b9e1-07b6a22e45df-master.m3u8https://video.igem.org/videos/embed/5f2SJZcpMTf1R3YmAEwqCW602032025-11-10T20:04:40.244ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/uQdgziKF91PawfKWu4Hhr7https://video.igem.org/lazy-static/thumbnails/fbcbb73a-77f5-43ad-942a-a49459d50998.jpgMental Health in iGEM: Where We Are and What’s NextDiscover how the iGEM community is pioneering new ways to address pressing challenges-including mental health-through the lens of synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/e97b24e9-4926-4ab3-8dbc-088cbfaaf808/72f928c1-eb3e-4dec-af91-e4a9665a2fbf-master.m3u8https://video.igem.org/videos/embed/uQdgziKF91PawfKWu4Hhr71099032025-11-10T20:20:32.032ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/mw1iPv6xG8sPrA4ZspiqAnhttps://video.igem.org/lazy-static/thumbnails/366b8ba6-be70-4e32-8607-05965022ec58.jpgFostering the Synthetic Biology EcosystemDiscover how iGEM members across 45+ countries are advancing synthetic biology in their regions. Learn about their projects, connect with local initiatives, and find global opportunities to collaborate, share knowledge, and grow your skills.https://static.igem.org/peertube/streaming-playlists/hls/a627468f-e7b0-4bb4-bd92-cc683c7d8a41/ab42f8a0-b146-4a4c-9c93-e200be1d665b-master.m3u8https://video.igem.org/videos/embed/mw1iPv6xG8sPrA4ZspiqAn2844022025-11-10T21:11:04.670ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/ePu5fib1TG9rWbSvGFJ7bNhttps://video.igem.org/lazy-static/thumbnails/f95bead7-fbc6-4edf-9ff8-e350efb05111.jpgHow Has iGEM Changed You as an Educator?High School PIs will share how advising an iGEM team has shaped their classrooms and careers.https://static.igem.org/peertube/streaming-playlists/hls/6fe80f7d-277a-4850-a724-adc80bc7668a/b168b941-c611-4133-bfd0-d8cc0ab94bd2-master.m3u8https://video.igem.org/videos/embed/ePu5fib1TG9rWbSvGFJ7bN2131012025-11-10T21:18:42.054ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/oGG76f27D2WNcizECrs7ERhttps://video.igem.org/lazy-static/thumbnails/6e54621d-88a5-49bc-b05b-ab816ab5145f.jpgiGEM Competition Mentorship Program Award CeremonyThe iGEM Competition Mentorship Program helps new high school, collegiate, and community lab teams learn how the iGEM Competition works. It also offers experienced iGEMers the opportunity to give back to the community, engage with the next generation of participants, and develop valuable skills in communication, leadership, and mentorship. Join us in celebrating the achievements of our mentors and mentees!https://static.igem.org/peertube/streaming-playlists/hls/b7d78454-1794-4021-8d42-7c024334dfc5/3c15b87b-f687-46b8-b8c1-9eed61d88bc3-master.m3u8https://video.igem.org/videos/embed/oGG76f27D2WNcizECrs7ER623052025-11-10T20:21:32.297ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/no1KAXG6xfG3vLmJz8kbgohttps://video.igem.org/lazy-static/thumbnails/acb04593-8625-4378-a6a0-7e8de42f9319.jpgBridging the Education Gap in Science CommunicationScience is not complete until it is communicated. Yet many researchers lack the tools and training to share their work effectively beyond the lab. Mastering SciComm is a free, open-access course designed to bridge that gap. Developed with insights from global experts, the course helps scientists build a strong science communication portfolio.https://static.igem.org/peertube/streaming-playlists/hls/ad22bcf3-d4eb-45f6-8d8d-bb531545db6c/0587c0a5-f5ca-401a-a908-05607676f782-master.m3u8https://video.igem.org/videos/embed/no1KAXG6xfG3vLmJz8kbgo963022025-11-10T20:53:28.527ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/fuygAcqUr3rjG62CBU9xYShttps://video.igem.org/lazy-static/thumbnails/d95d7d61-91f5-47ae-9d32-817e830b979c.jpgThe Power of Local Meetups: Accessibility as the Key to OpportunityiGEM is about opportunity: discovering career paths, building networks, and getting into the lab early. But a major roadblock is accessibility. Not everyone can afford to attend the Grand Jamboree, work in English, or travel internationally. If iGEM is truly about creating opportunity, then we must devote as much energy to breaking down these barriers as we do to research. Local and regional meet-ups are a way forward. The closer these events are, the more accessible iGEM becomes. They give the competition year-round relevance in our own communities, uniting academia, industry, and the next generation of scientists under one roof. The Great Canadian Meet-Up (GCM) is our example. Despite challenges, its impact proves that these gatherings deserve on-going support. In this talk, we’ll show how investing in local iGEM events is the key to making opportunity real for everyone– boosting accessibility and opening the iGEM community beyond the Grand Jamboree.https://static.igem.org/peertube/streaming-playlists/hls/755ca734-92f4-4456-9e18-642264f2621e/6ee7aa90-4698-42be-b09b-6908ed21d1ef-master.m3u8https://video.igem.org/videos/embed/fuygAcqUr3rjG62CBU9xYS684002025-11-11T03:59:18.998ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kGYehVGA5Epz9kQq7t2pjShttps://video.igem.org/lazy-static/thumbnails/6f66d50b-7fc7-4544-a141-0a3d30e7b0df.jpgAlumni Stories: Turning Science into Public GoodDiscover how iGEM alumni are transforming their scientific passions into real-world impact. In this session, former iGEMers share their journeys, highlighting how synthetic biology can drive positive change for communities worldwide. Learn from their experiences, and explore the challenges and opportunities in making science accessible.https://static.igem.org/peertube/streaming-playlists/hls/9f9609ad-0aa3-4c05-879e-ad1514d01c1a/aa3950f1-c119-44f1-84e7-3d2432c8f5a5-master.m3u8https://video.igem.org/videos/embed/kGYehVGA5Epz9kQq7t2pjS1015022025-11-10T21:08:10.262ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/jhNaH3qd2rVbWZ45kVJeynhttps://video.igem.org/lazy-static/thumbnails/6daf5f10-00b4-40dd-a161-547dec2c425f.jpgSharing Best Practices for HS iGEMHigh School PIs please come and share your team's best practices for a successful season of iGEM. Topics will include organization, project ideation, funding, resources and more.https://static.igem.org/peertube/streaming-playlists/hls/941cd90c-f7b5-4209-8d27-e85aaf959969/91b46c31-bf9c-40b8-881a-cd35bdad12db-master.m3u8https://video.igem.org/videos/embed/jhNaH3qd2rVbWZ45kVJeyn2076022025-11-10T21:30:06.868ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/31GkPuDUw4U8sy5jYbcDgjhttps://video.igem.org/lazy-static/thumbnails/49cd8997-51e1-44ec-8542-79b51ab47b19.jpgFrom Guidance to Growth: The Power of Mentorship for Early-Career Women in STEMExplore how mentorship drives the development of women in STEM, especially early in their careers, and how GirlsLab helps provide guidance, community, and opportunities.https://static.igem.org/peertube/streaming-playlists/hls/104b2387-00d8-4748-9831-97b88ae21184/fdcf0c61-3634-4766-8c05-4c547122c29c-master.m3u8https://video.igem.org/videos/embed/31GkPuDUw4U8sy5jYbcDgj641012025-11-10T21:14:36.315ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/rRwzUuLsxBa7YAKmDfRzNRhttps://video.igem.org/lazy-static/thumbnails/65fa4ef0-5a81-4041-bd4c-021d8c72c95e.jpgPublishing Workshop for Early-Stage Researchers and StudentsAre you an early-stage researcher or student looking to navigate the complex world of academic publishing? Join us for an in-depth Publishing Workshop designed to give you a comprehensive overview and practical insights into the publication process!https://static.igem.org/peertube/streaming-playlists/hls/d15ec277-d771-4f2d-8e90-81ae045bd769/452eefa5-7e54-477b-9a7c-8dd5c465814e-master.m3u8https://video.igem.org/videos/embed/rRwzUuLsxBa7YAKmDfRzNR3452012025-11-10T22:53:01.862ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/whDpy7z38MRN1sRkVmaTCNhttps://video.igem.org/lazy-static/thumbnails/dc079740-eaa9-45d0-b821-086150259a02.jpgThe Future We Can Build Together: 2026 iGEM Community RecruitmentDo you want to be a part of a global team which is leading the synthetic biology community and building resources and opportunities for the global synbio ecosystem? Then iGEM Community is for you! This session will feature the iGEM Project Heads, Project Members, Ambassadors and Promoters to share experiences and how you can join us in 2026!https://static.igem.org/peertube/streaming-playlists/hls/f5451cc9-4c2b-4493-bd64-babb4747348a/4d5e0097-b624-469d-8817-23b0d6eedb8f-master.m3u8https://video.igem.org/videos/embed/whDpy7z38MRN1sRkVmaTCN2504012025-11-10T22:23:30.600ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/7xsFzU1YZV91VLPZdYMpsihttps://video.igem.org/lazy-static/thumbnails/647935d9-c146-4527-bc81-2d2fd354c36d.jpgPestiGuard - The Smart Aptamer BiosensorPestiGuard is an innovative biosensor that puts food safety directly into the hands of consumers. To address the global health risks from pesticide residues, we have developed a simple, on-site detection system. At its heart are engineered bacteria containing a specialized RNA aptamer. When a specific pesticide is present, it binds to the aptamer, suppressing a fluorescent reporter gene and resulting in a dimmer glow. This provides an intuitive visual signal: brighter means safer, dimmer means contaminated. For precise results, we created companion software and hardware. A photo of the test sample is instantly analyzed, comparing the color intensity to a safety reference to display clear contamination levels. By integrating synthetic biology with smart technology, PestiGuard transforms complex lab testing into an accessible, user-friendly process, empowering everyone to make informed decisions about their food.https://static.igem.org/peertube/streaming-playlists/hls/34fb551e-a319-4641-89e0-92e2dcfa7bf9/024c4711-b827-4c70-b0ac-2a44579828a1-master.m3u8https://video.igem.org/videos/embed/7xsFzU1YZV91VLPZdYMpsi5940112025-11-11T04:04:40.179ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/ptXsJvLzuY1cnSTtyTurrdhttps://video.igem.org/lazy-static/thumbnails/a300d275-11cb-4f6f-ba2d-556da80e94e9.jpgThe Salidroside Initiative: Protecting the Plateau and Every Heartbeat with Synthetic BiologyCardiovascular diseases increasingly threaten young populations due to stress and unhealthy habits. Salidroside, a cardioprotective compound from Rhodiola rosea, shows antioxidant and anti-hypoxic effects but is difficult to source sustainably. To solve this, we engineered Escherichia coli to biosynthesize salidroside via an optimized tyrosol pathway and heterologous expression of a UDP-glucosyltransferase (UGT). In addition, we developed a whole-cell biosensor targeting 4-hydroxyphenylpyruvate (4HPP), a key intermediate in the microbial biosynthetic pathway of salidroside. By employing this sensor, we enhanced salidroside production through directed evolution. Our system provides an eco-friendly, scalable alternative to plant extraction, reducing pressure on fragile plateau ecosystems while supporting youth heart health through synthetic biology innovation.https://static.igem.org/peertube/streaming-playlists/hls/be297331-5fbe-42bc-a804-7210d235990a/f872a1e8-fa90-47e5-bfb8-ae13d00a9e76-master.m3u8https://video.igem.org/videos/embed/ptXsJvLzuY1cnSTtyTurrd578002025-11-11T04:06:43.416ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/hBpJkAj6xg8hATLMwbj3uMhttps://video.igem.org/lazy-static/thumbnails/48ef60c0-f7b8-4a47-b8e5-6136443b27de.jpgFrom Overuse to Innovation: Rethinking Herbicides for Sustainable AgricultureExcessive herbicide use has ensured short-term yields but caused long-term soil degradation, crop damage, and ecological imbalance. In this Live Stage Talk, we call for awareness on the risks of herbicide overuse and discuss how to adopt responsible practices in modern agriculture. Starting from our project, we designed engineered E. coli to degrade Chlorimuron-ethyl residues and secrete IAA, offering a current solution to reduce herbicide harm and support crop growth. We advocate for joint efforts in exploring bio-based alternatives such as microbial, paving the way for safer, greener, and more sustainable farming systems.https://static.igem.org/peertube/streaming-playlists/hls/8683dfe6-fdd5-42cc-bbf9-f57d60adf93d/b2e85b2f-c500-412f-b0a5-9e9f76bb5156-master.m3u8https://video.igem.org/videos/embed/hBpJkAj6xg8hATLMwbj3uM564022025-11-11T04:08:28.602ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/o3PV9CYRr37TUWEPyYZTq9https://video.igem.org/lazy-static/thumbnails/9b9ad414-4062-4f15-be48-e113dfb4f543.jpgPFAS - The Biggest Chemical Cover-up in HistoryHave you seen Erin Brockovich? You know, that movie where Julia Roberts investigates illnesses affecting the residents of a town heavily polluted by chromium. Well, now imagine Julia Roberts investigating another invisible scourge: water pollution caused by PFAS — those synthetic, man-made molecules, also known as “forever chemicals,” that are found… everywhere. From polar bears, to fishes, to birds, almost every living creature is contaminated. Well, we, the iGEM Lyon 2025 team, are kind of like the French Julia Roberts - except instead of a legal thriller, we’re doing synthetic biology. Join us to understand what exactly are PFAS, why they're called "forever chemicals" and what's our solution to get ride of them !https://static.igem.org/peertube/streaming-playlists/hls/b28e114c-061d-4cc5-9d70-498905a794cc/4d21237e-0ffb-42cf-8505-24fa3037acc9-master.m3u8https://video.igem.org/videos/embed/o3PV9CYRr37TUWEPyYZTq96230122025-11-11T04:09:57.090ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/ucGLLrnurhQ6yumYgwZMWNhttps://video.igem.org/lazy-static/thumbnails/babe163d-24b2-4fa0-9f88-ef25df621b3e.jpgMethaNO: Synthetic Biology-Based Biosensors for Rapid Methanol Detection in Alcoholic BeveragesMethanol contamination in alcoholic beverages is a serious global health risk, yet accessible detection methods are lacking. Team MethaNO from Macquarie University proposes two synthetic biology-based biosensors for low-cost, rapid methanol detection. The first design uses a whole-cell E. coli sensor featuring a chimeric histidine kinase combining MxaY (from Paracoccus denitrificans) with CusS (from E. coli), activating a kinase phosphorylation pathway to express a visible blue chromoprotein (AmilCP) in response to methanol. The second design employs a Ca²⁺-PQQ-dependent methanol dehydrogenase (MDH) from Methylorubrum extorquens, expressed and isolated from E. coli to create a cell-free system. MDH oxidizes methanol to formaldehyde, detectable via colorimetric assays. Both biosensors offer scalable, specific, and visual detection of hazardous methanol levels in beverages.https://static.igem.org/peertube/streaming-playlists/hls/e46230c3-7d56-4be9-9356-e9b885fadae6/96a74743-ed78-4886-b310-42bb5678606c-master.m3u8https://video.igem.org/videos/embed/ucGLLrnurhQ6yumYgwZMWN607012025-11-11T04:11:31.922ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/uhy2efjr6Pzccp9ff66Dh8https://video.igem.org/lazy-static/thumbnails/491a55ce-3cfe-4007-ab89-7cca538bd2d9.jpgPHAntom Thalassic: From Salty-Water Strains to Ocean-Safe PlasticsPlastic pollution is a global crisis demanding sustainable alternatives. Our project, PHAntom Thalassic, develops a cost-effective method to produce biodegradable polyhydroxyalkanoates (PHA) using deep-sea halophilic bacteria. Focusing on Halomonas strains LA4 and LA5, which thrive in high-salt, alkaline environments, we enable open, contamination-resistant fermentation and wastewater recycling. The phaCAB operon from Ralstonia eutropha (Cupriavidus necator) was introduced into Halomonas via E. coli S17-1λ conjugation, and PHA yield was assessed by Nile Red staining and GC-MS. Using CRISPR/Cas9, we integrated PHA genes into the Halomonas genome. Through extensive Human Practices, we engaged professors, fishermen, policymakers, and industry experts to align our work with real-world needs. Our PHA plastics are designed to degrade safely in marine environments, providing a sustainable solution to reduce ocean pollution and protect coral reefs and mangroves.https://static.igem.org/peertube/streaming-playlists/hls/e50f843c-c978-41f4-8379-764779d7c133/0c1f9a97-0b28-4562-9d6f-968f4e446c05-master.m3u8https://video.igem.org/videos/embed/uhy2efjr6Pzccp9ff66Dh8675002025-11-11T04:13:05.924ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pkbgZCGFuJWdHTZF4bp333https://video.igem.org/lazy-static/thumbnails/f59369aa-7996-47ef-9b37-56a1b0f1e5f4.jpgRePLAce with PLAstic: Enabling On-Site PLA DegradationThrough IHP, we identified two key challenges from stakeholders’ perspectives: insufficient efficiency of PLA-degrading enzymes and unclear recycling classification. To address the first issue, we engineered recombinant enzymes (AC, CA, DP, PK) and developed an auto-induction measurement system for high-throughput screening, with PK variants showing the most promising activity. For the second issue, we aligned with the SDGs by organizing a target field to test PLA usage in isolation and submitting a citizen proposal to advocate for clearer waste management policies and the establishment of industrial composting facilities in Taiwan, providing a practical solution to misclassification. Our project demonstrates the integration of enzyme engineering with community engagement to advance PLA degradation and sustainable waste management.https://static.igem.org/peertube/streaming-playlists/hls/bcefa749-a516-4b02-81de-a91c976a5f16/1295096a-e02b-4e3c-87be-7e0b98fb9b13-master.m3u8https://video.igem.org/videos/embed/pkbgZCGFuJWdHTZF4bp333571012025-11-11T04:15:34.158ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/f3MVJnmUWX3eWFT9GwRwH5https://video.igem.org/lazy-static/thumbnails/87557efe-adab-4e64-8867-f0cc91a2049d.jpgCML2-Powered: A Niche-Adaptive Biosensor for Precise Arsenic Detection in Rice PaddiesArsenic contamination in rice paddies threatens food safety and environmental health. Traditional large-instrument-based monitoring is costly and unsuitable for on-site rapid screening. To solve this, our project develops a novel arsenic biosensor via the "niche-matching" principle, sourcing key elements from Cupriavidus metallidurans CML2 (a rice endophyte adapted to paddies). We construct an "AND-gate-like" genetic circuit with a split-GFP system to reduce basal leakage and boost signal-to-noise ratio, and optimize performance through multiple "Design-Build-Test-Learn" (DBTL) cycles for sensitive, specific arsenic detection. This biosensor enables on-site paddy arsenic monitoring and lays a foundation for future "detection-remediation" microbial agents, aiding sustainable agriculture and environmental protection.https://static.igem.org/peertube/streaming-playlists/hls/71c3bb5f-3bf9-4663-bdb3-96912af15e8e/61f2def4-367c-477c-b18c-1431721ea56e-master.m3u8https://video.igem.org/videos/embed/f3MVJnmUWX3eWFT9GwRwH5477032025-11-11T04:15:14.731ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cMsTQZHFTYmX16bTmDi3eLhttps://video.igem.org/lazy-static/thumbnails/5b3364bb-4041-4d21-8c71-6ae599bc526c.jpgLumaManta: A One-Stop, Continuous, Spatiotemporal Aquatic Information-Detecting Device for Ecolog...To better PROTECT, we must first DETECT. LumaManta, developed by ZJU-China, is an all-in-one bio-intelligent underwater device for continuous spatiotemporal detection and treatment of aquatic environments. Aiming to advance environmental conservation, it integrates four biological modules—Detection, aTF Production, Treatment, and Algae–Bacteria Symbiosis—within a manta-ray-inspired body to achieve autonomous ecosystem monitoring. The Detection Module employs a cell-free biosensing system using DNA strand displacement, and PSR amplification to detect metal ions, biomolecules, and eDNA in real time. The aTF Production Module applies AI-assisted protein reprogramming to expand sensing specificity, while the Treatment Module uses protein scaffolds for pollutant absorption and molecular collection. The Symbiosis System maintains a cyanobacteria–E. coli co-culture for CO₂ fixation and nutrient cycling, enabling sustainable, long-term operation. LumaManta represents a new paradigm for bio-driven conservation technology—turning detection into the first step toward sustainable protection of aquatic life.https://static.igem.org/peertube/streaming-playlists/hls/5f6d91a0-193e-44a1-be33-330b2bb2569e/c653399d-e2ec-4777-b618-b05d1cfd5190-master.m3u8https://video.igem.org/videos/embed/cMsTQZHFTYmX16bTmDi3eL610062025-11-11T04:17:31.097ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/joT857z2Puq9aTcnYhKreHhttps://video.igem.org/lazy-static/thumbnails/d431bcaf-0e7e-4ced-9bf0-c235cc968f07.jpgNU Boston's FloraGuard: Enzymatic Flame RetardantsWildfires are extremely deadly environmental and ecological disasters. Caused by natural and artificial means, they destroy homes, property, and habitats, and take the lives of both humans and wildlife around the world. To address these natural disasters, NU Boston has developed FloraGuard, a novel preventative solution to the spread of wildfires. Inspired by the cellulosomes of anaerobic bacteria like Clostridium Thermocellum, FloraGuard is a quaternary protein complex in which bioavailable flame retardant proteins (FRPs) are conjugated to cellulose binding domains (CBDs). After designing these complexes in silico, we expressed them in bacteria before purifying them. The purified complexes were then applied to various forms of cellulose like cotton and paper to test the flammability of treated vs. untreated samples. Our goal is to increase the flame resistance of cellulose and hopefully all plant matter to mitigate the devastation that wildfires leave in their wake.https://static.igem.org/peertube/streaming-playlists/hls/94f65d23-2831-40cf-8eda-df78dbe47017/d265e3db-59fc-443a-8c32-436e3c4899d6-master.m3u8https://video.igem.org/videos/embed/joT857z2Puq9aTcnYhKreH613052025-11-11T04:25:54.325ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eEy3NHD1KucigKF3Mqn1Zthttps://video.igem.org/lazy-static/thumbnails/e94e8f11-49bb-4a88-a357-508e01f87670.jpgHarnessing Synthetic Biology for Healthier Flavors: Expression and Validation of Saltiness-Enhanc...The SaltEnPep project leverages synthetic biology to address the global health challenge of excessive sodium consumption by developing saltiness-enhancing peptides that boost salt perception, enabling sodium reduction in food products without compromising taste. Peptides identified from literature were analyzed using molecular docking and dynamics to predict their interactions with human taste receptors. Selected peptides were cloned into a novel dual-intein chitin-binding domain (CBD) “sandwich” system within the pET-Blank(Kan) vector and expressed in E. coli. The system enabled efficient expression and purification via a thiol-mediated self-cleavage mechanism. Expression conditions were optimized using various IPTG concentrations, and peptide identity and purity were confirmed using Ultra-High-Performance Liquid Chromatography (UHPLC). Sensory evaluation with the ASTREE II electronic tongue showed distinct taste fingerprints and confirmed that peptides enhanced saltiness, especially when combined with NaCl. This work presents the first recombinant, scalable platform for producing salt-enhancing peptides, offering a sustainable solution for sodium reduction in foods.https://static.igem.org/peertube/streaming-playlists/hls/6ea8d0fc-4d8d-44f8-8547-31dfed676bed/1ee6f98a-f9ed-4b2c-ba9e-e5ac7a23debd-master.m3u8https://video.igem.org/videos/embed/eEy3NHD1KucigKF3Mqn1Zt667062025-11-11T04:27:08.867ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/izLBrLKmT2JxZnLvytaocmhttps://video.igem.org/lazy-static/thumbnails/4368c320-4359-464f-b07b-63a0df0cd007.jpgZero-Burden Dairy ProductsLactose intolerance is a common digestive problem, affecting about two-thirds of adults worldwide. Symptoms vary between individuals, and both governments and the dairy industry in different countries have introduced their own responses. Although public awareness is steadily increasing, the variety of lactose-free dairy products on the market is still rather limited. In our project, we explored a different approach: we are trying to design a method to decrease lactose concentration and reduce sugar content, which is more convenient and has a lower price compared with UF. Two enzymes, beta-T-galactosidase and glucose oxidase, were produced to transform lactose into galactooligosaccharide (a type of prebiotic) and, then, oxidize glucose, byproducts of breaking down lactose, to decrease the sugar content in dairy products. Meanwhile, our project also provides a chance for diabetes patients to consume dairy products.https://static.igem.org/peertube/streaming-playlists/hls/8e6264ea-7814-41f3-9fef-a4883a94c202/d067922b-a2ff-4a5a-becc-acb257e72d48-master.m3u8https://video.igem.org/videos/embed/izLBrLKmT2JxZnLvytaocm604032025-11-11T04:30:17.027ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/c2n3F2aASyVZAXiUyaA3JShttps://video.igem.org/lazy-static/thumbnails/68f2209d-9f87-4d98-96f0-8345c508da4e.jpgMicrobial Detection and Remediation of Hexavalent ChromiumWe aim to design a biosensor for detecting hexavalent chromium (Cr) using synthetic biology techniques, while utilizing soluble flavoprotein ChrR and YieF to achieve effective reduction of hexavalent Cr in Escherichia coli BL21(DE3); A biosensor based on the pigment protein AmilCP is used to detect the presence of hexavalent Cr, and the concentration of reduced hexavalent Cr is determined using the diphenylcarbazide spectrophotometric method; By employing a safe microbial method, this approach achieves a more efficient, convenient, and environmentally friendly mitigation of hexavalent Cr toxicity.https://static.igem.org/peertube/streaming-playlists/hls/59453d38-333a-45e8-b764-c268f6f6155e/4fef85fd-9a20-41cc-b712-7b611bec1319-master.m3u8https://video.igem.org/videos/embed/c2n3F2aASyVZAXiUyaA3JS6170102025-11-11T04:28:46.889ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cshwCQ24H8smi1gHf55HGEhttps://video.igem.org/lazy-static/thumbnails/5fb61a6a-359e-40ad-90ad-3ae0a1addcbe.jpgBasel: The Swiss Biotech Hub, a Springboard for Innovation and CareersAs the first team from a Swiss University of Applied Sciences (FHNW) to compete at iGEM, we set out to develop a CRISPR/Cas12a-based diagnostic test for Arsenophonus bacteria, an emerging threat to crops. While we achieved a proof of concept in the lab, our project grew into much more. Guided by our applied sciences background, we focused on practical solutions and early engagement with local stakeholders. We connected with Basel’s biotech, pharmaceutical, and agricultural community for advice, fundraising, and feedback, which helped us understand how projects like ours can contribute to Switzerland’s innovation landscape. In this talk, we will share what it meant for our university to enter iGEM, how working at the interface of science and application shaped our journey, and how the experience has prepared us as young researchers to contribute to biotechnology and society.https://static.igem.org/peertube/streaming-playlists/hls/5cc00c94-537f-4418-b2e1-a30300b0175a/a77fda9f-f95b-441a-a022-9b921dabd1d3-master.m3u8https://video.igem.org/videos/embed/cshwCQ24H8smi1gHf55HGE636022025-11-11T04:31:37.568ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/ceHmaTiUHtUf2nCwpsgecuhttps://video.igem.org/lazy-static/thumbnails/ed24b811-4ce0-4a16-80fb-a47881344376.jpgFruit Peel Degradation Using Engineered Lactobacillus reuteri Expressing Polygalacturonase (PGXc)Fruit peel waste is a significant component of agricultural biomass, yet its rich pectin content remains underutilized. To address this, we engineered Lactobacillus reuteri, a Generally Recognized as Safe (GRAS) probiotic, to secrete polygalacturonase (pgxC) for extracellular pectin degradation. Using the pTRKH3 backbone under the ermB promoter and fused with the Usp45 secretion signal, we achieved stable expression and secretion of pgxC. Transformation in E. coli and L. reuteri confirmed plasmid maintenance, while SDS-PAGE revealed a distinct 48.5 kDa pgxC band. Protein quantification indicated increased secretion in engineered strains (0.10 vs 0.04 µg/µL controls). Functional assays validated pgxC activity: engineered L. reuteri released significantly greater amounts of D-galacturonic acid from pectin, with degradation efficiencies varying across fruit sources (pear and tomato > kiwi > banana > watermelon). This work demonstrates probiotic-mediated fruit peel valorization and highlights applications in biofuels, feed, and prebiotic production through a sustainable waste-to-resource platform.https://static.igem.org/peertube/streaming-playlists/hls/5afeacfd-0915-46e8-840f-917b671dc746/fd45e77b-195b-4ce1-90ed-f6837146199f-master.m3u8https://video.igem.org/videos/embed/ceHmaTiUHtUf2nCwpsgecu556012025-11-11T04:32:39.483ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kP1rNhqtevaQkKbfeDrfvVhttps://video.igem.org/lazy-static/thumbnails/4f1c878c-544f-4fc8-9257-1e601f8e45e4.jpgThe Cysteinator — A Biological Device to Enhance Biohydrogen ProductionThe effects of climate change underscore the need to develop sustainable energy technology. Hydrogen (H2) based sustainable energy solutions decarbonize high-heat industrial processes and long-distance transport. However, current H2 production is land and water-intensive, and largely reliant on fossil fuels. Dark Fermentation (DF)—an anaerobic process where glucose is converted to H2—is a sustainable alternative that can be integrated into waste-to-energy (WTE) streams. Currently, DF cannot produce H2 in commercially viable quantities. Our device, “The Cysteinator”, solves this challenge by supplementing DF bioreactor feedstocks with precise concentrations of L-cysteine. L-cysteine lowers the oxidation-reduction potential in DF feedstocks, helping hydrogen-producing bacteria propagate and increasing hydrogenase function. Our device is accompanied by a multi-scale model that characterizes its behavior and informs its implementation in a variety of WTE streams. Our project includes thorough analyses on the Cysteinator’s impact on WTE streams, DF market viability, and the UN’s Sustainable Development Goals.https://static.igem.org/peertube/streaming-playlists/hls/a06ddda7-e501-4318-a97a-2263add29a97/8d93e311-afd8-4c26-9880-d5c3209b26c5-master.m3u8https://video.igem.org/videos/embed/kP1rNhqtevaQkKbfeDrfvV619042025-11-11T04:35:31.525ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kbWFvq98Vw2qohCyYnR3wPhttps://video.igem.org/lazy-static/thumbnails/fbf5942b-472f-47fc-b104-98137dc53c59.jpgPFAway: The End of Forever PollutantsPFAS, also known as “forever chemicals,” are man-made compounds found in countless everyday products. Their remarkable resistance to heat, grease, and water comes from exceptionally strong carbon–fluorine bonds. But this stability comes at a cost: PFAS do not break down. Contamination is now global, and calls for a solution. We introduce PFAway, a real-world PFAS degradation process relying on two bacterial strains immobilized in carbon-activated beads. A newly identified strain, Labrys portucalensis F11, is first used to degrade long-chain PFAS into short-chain PFAS. Pseudomonas putida KT2240 then defluorinates short-chain PFAS through an engineered dehalogenase obtained by hypermutagenesis in E. coli. Dehalogenase variants are screened based on a fluoride biosensing aptamer implemented in droplet microfluidics. Improved dehalogenases are finally expressed in a modified P. putida that is made resistant to fluoride ions through the overexpression of the fluoride transporter FluC. This end-to-end process paves the way towards industrial-scale PFAS decontamination.https://static.igem.org/peertube/streaming-playlists/hls/9b64c54c-a6ed-4e2e-843b-c6b4527b863b/a294c68f-4e08-45d8-8d60-1fa734d7572b-master.m3u8https://video.igem.org/videos/embed/kbWFvq98Vw2qohCyYnR3wP595022025-11-11T04:36:38.191ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/fvaeUpjZmLwtaQUXG4hH62https://video.igem.org/lazy-static/thumbnails/b2f4611f-0212-4d2b-bd70-ec2aa593cc20.jpgPyricon - Spinning a Future with Spider Silk Towards More Sustainable Construction MaterialsCement production accounts for about 8% of global CO₂ emissions (Kajaste & Hurme, 2016), and demand is expected to rise (Castro-Alonso et al., 2019; Lanjewar et al., 2025). At Pyricon, we address this challenge by creating a sustainable, bio-based alternative to cement bricks. We engineer Bacillus subtilis to produce spider silk proteins that enhance microbially induced calcite precipitation by another bacterium, forming a durable biocement. Using a novel PCR-free DNA assembly strategy and codon harmonisation, we aim to efficiently express highly repetitive silk genes. Our approach not only enables eco-friendly construction materials but also advances synthetic biology by providing a robust method for assembling reptitive DNA sequences. Scaled adoption of Pyricon’s biocement could significantly cut embodied CO₂ in masonry and small-scale construction while extending material lifespan, offering a practical path toward a lower-carbon built environment.https://static.igem.org/peertube/streaming-playlists/hls/7572346a-47a4-442b-8a5d-e4df96d7f657/b216691f-5e61-4185-aaec-9739e3203f39-master.m3u8https://video.igem.org/videos/embed/fvaeUpjZmLwtaQUXG4hH625730122025-11-11T04:37:24.193ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/vuyWFtN61HyWkZDEZvURpWhttps://video.igem.org/lazy-static/thumbnails/953a085a-fec6-427a-aaf3-1793dc0ff0a0.jpgVERDESoilless agriculture has been an agricultural market on the rise, which yields up to 50% higher efficiency than soil-based cultivation. VERDE is an antifungal detector that works against fusarium, a common fungus that causes fungal root rot, which poses a significant threat to soilless agriculture. To enhance the specificity of detection and mitigate the scale constraints, VERDE engineers plasmid of E.coli detects low acidity below 4.5 and indicates the infection of Fusarium. The acid-inducible E. coli asr promoter drives co-expression of genes glutaminase (glsA), β-1-3 glucanase (BGL2), and RsAFP2. These variants in the assembly allows the biosensor to not only detect the presence of Fusarium, but also facilitates its death by producing proteins that disrupts the diffusion of Fusarium: BGL2 and RsAFP2.https://static.igem.org/peertube/streaming-playlists/hls/eed625fd-c087-40c9-943a-cbc4ccff85e0/71e5bfd6-cbd9-4084-86e9-bb3b1097e2dc-master.m3u8https://video.igem.org/videos/embed/vuyWFtN61HyWkZDEZvURpW604062025-11-11T04:38:57.457ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/fhYEmXvUnE3gMno4bCXr87https://video.igem.org/lazy-static/thumbnails/81cab57e-960b-46ba-9fed-e19fcf0a18c6.jpgRoot Rot Nemesis: A Novel Agricultural Microbial AgentRoot rot disease is a common disease in agriculture, causing significant economic losses to farmers every year. To address this, we destroy the cell walls of pathogenic fungi by introducing into chassis bacteria genes capable of secreting chitinase and chitin synthase inhibitors. Additionally, we have conducted numerous related human practices activities, including communication with scientists, farmers, microbial agent manufacturers, and lawyers, to refine our product design. Our goal is to develop an agricultural microbial agent capable of treating root rot disease.https://static.igem.org/peertube/streaming-playlists/hls/73bec2a8-e5c1-4707-aa19-dc62480323f8/6ff449ae-9b30-48f9-a307-85633b9cca1f-master.m3u8https://video.igem.org/videos/embed/fhYEmXvUnE3gMno4bCXr87688072025-11-11T04:49:15.129ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/n5xV6qanJfoV8qeWkmkNrghttps://video.igem.org/lazy-static/thumbnails/a5498ab9-89b0-462f-a8e2-ad24de8cc1f5.jpgSandureKuwait’s extreme heat, scarce rainfall, and sandy soil composition contribute to rapid water loss and reduced agricultural productivity. To address this environmental challenge, this project proposes engineering Escherichia coli ATCC 25922 to enhance soil water retention through the controlled production of extracellular polymeric substances (EPS). By co-transforming the strain with plasmids pVanCC (Amp^R) and pAcu (Kan^R), the bacteria can be designed to express EPS under specific induction conditions, such as elevated temperatures. The produced EPS would act as a natural hydrogel, improving the soil’s ability to retain moisture and reduce evaporation in arid environments. When applied to Kuwaiti soil, the modified bacteria are expected to create a microenvironment that binds water and stabilizes soil particles. This theoretical approach highlights the potential of synthetic biology to provide a bio-based, sustainable solution for water conservation and agricultural resilience in Kuwait’s desert ecosystems.https://static.igem.org/peertube/streaming-playlists/hls/aab28e35-a1fe-4c76-a0e5-5fcb2b79df49/d6424e76-9498-49d3-ab5a-0169049618a6-master.m3u8https://video.igem.org/videos/embed/n5xV6qanJfoV8qeWkmkNrg452082025-11-11T04:47:46.211ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/3wigtZGiWeBXK1hme9258Thttps://video.igem.org/lazy-static/thumbnails/329607ef-50c2-4f04-86e7-5ca41006c610.jpgTeam Imperial College LondonThe current model of meat production is environmentally unsustainable. Cultivated meat offers an alternative, yet remains hindered by high production costs, particularly by recombinant growth factors that constitute up to 70% of expenses. We tackle this by engineering a Komagataella phaffii chassis, Mannoless, designed to reduce exopolysaccharide secretion and improve yield through targeted modifications in Hoc1, Rho1, and PMI. We also developed BioKernel, an open-access, no-code Bayesian optimisation framework that accelerates design and strain engineering. Guided by our conversations with world-leading experts across different sectors, we explored unspoken pitfalls of scaling in yeast chassis. Our education efforts addressed skepticism toward synthetic biology, as innovation cannot scale without public trust and investor confidence. Finally, we were on a mission to make our outputs fully open-access reaffirming our belief that science cannot scale without non-proprietary technology. We aimed to remove cost and licensing barriers in biomanufacturing, accelerating a sustainable future for food.https://static.igem.org/peertube/streaming-playlists/hls/146d3b46-f3f5-4f46-9638-0b944edbf921/ddbc246c-57ae-4b67-99a4-2dd92f0a0711-master.m3u8https://video.igem.org/videos/embed/3wigtZGiWeBXK1hme9258T5200112025-11-11T04:50:26.642ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eW1mHDSgLkyKbY2FrYP41zhttps://video.igem.org/lazy-static/thumbnails/be666dbb-55ef-4c78-9e80-ea57efed3c43.jpgNitrogen and Nematodes in the Soil of CropsWe plan to have a discussion on nitrogen elements in crop soil and nematodes, including the use and hazards of various nitrogen fertilizers in crops, as well as various nematodes that feed on crop roots. To address the above issues, we have designed a project that simultaneously fixes nitrogen and repels nematodes, and have included two very interesting switches in it. We hope to discuss them with everyone.https://static.igem.org/peertube/streaming-playlists/hls/70d12fb1-3a94-4695-933f-6470bb3fa345/3818fc9c-5c7a-40f2-bf32-15c1ff4f11c8-master.m3u8https://video.igem.org/videos/embed/eW1mHDSgLkyKbY2FrYP41z671082025-11-11T04:53:34.828ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1uAsZcWZEkE274Lhr4J4Schttps://video.igem.org/lazy-static/thumbnails/657dc50e-c251-47e9-b311-4b5a19d17824.jpgLacThera - Lactobacillus Therapy.The vaginal microbiome is crucial for reproductive health, mainly dominated by Lactobacillus spp., which protects against pathogens by producing antimicrobial compounds. Disruption of this balance can lead to infections like UTIs. And 30% of women with UTIs experience recurrent infections. While antibiotics are the main treatment, resistance and microbiome disruption limit their effectiveness and don't address the problem of recurrent UTIs. Probiotics using Lactobacillus strains can help restore balance, but often struggle against pathogens. We chose to augment Lactobacillus crispatus with peptide inhibitors that target pathogen adhesion mechanisms, helping prevent colonization.https://static.igem.org/peertube/streaming-playlists/hls/03fe10c7-816d-4460-a65c-34aa1f45b62b/8e4c9f47-fa3b-4e73-a73d-817894fe925e-master.m3u8https://video.igem.org/videos/embed/1uAsZcWZEkE274Lhr4J4Sc6250122025-11-11T04:56:20.336ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/oNUACLL9M14ExWgUW2cBQZhttps://video.igem.org/lazy-static/thumbnails/a9d3b7ee-4d0d-43be-a6c8-3f1b69285fea.jpgProbiEase: AI Platform of Probiotia Design for DiseasesProbiotics hold clear therapeutic promise, yet the evidence base is fragmented and hard to query; single-strain approaches also suffer from weak in vivo colonization and limited robustness, undermining durable efficacy. We therefore move from single strains to rationally designed consortia, empowered by synthetic biology. To enable data-driven decisions, we curated literature and clinical data and built ProbiEase, a platform that integrates a knowledge graph, strain search, and an AI chat interface to generate traceable, citable candidates. We then conduct a second-stage triage via metabolic modeling, evaluating coexistence and cross-interaction potential to derive synergistic strain sets. Using Parkinson’s disease as a case study, we showcase an end-to-end workflow—evidence aggregation → platform prioritization → modeling-based vetting—and, targeting PD-specific needs, propose intranasal nose-to-brain delivery of an engineered probiotic consortium with a modular design spanning adhesion, therapy, control, and safety.https://static.igem.org/peertube/streaming-playlists/hls/b8b5ad96-7f41-4091-947f-f0df80f8020d/3f5db3f1-7c6a-4b98-9229-1f01c18b1247-master.m3u8https://video.igem.org/videos/embed/oNUACLL9M14ExWgUW2cBQZ561042025-11-11T04:57:21.855ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/r2DA5j5aay3gfbYPhkcurRhttps://video.igem.org/lazy-static/thumbnails/87eb8664-cdcd-4cc0-99bd-75fe53227036.jpgLACMA: Lactate-Responsive Module and ApplicationOur project addresses the lactate-rich tumor microenvironment by engineering a lactate-responsive module that enables immune cells(e.g., CAR-T cells in Car-T therapy) to secrete lactate oxidase (sLOx) and reduce excess lactate. To build this module, a lactate sensing protein is split to two fragments, which are fused to the N-terminal and C-terminal fragments of TEV-protease, respectively. High lactate induces TEV-protease reconstitution, which then cleaves a GV-2ER fusion protein to release the transcription factor GV (Gal4-VP64). GV enters the nucleus and activates sLOx expression, lowering lactate concentration and enhancing immune cell anti-tumor efficacy.https://static.igem.org/peertube/streaming-playlists/hls/caaf5fd7-89ce-417e-87ee-b6ec18ab7b73/22aae892-c447-402f-a1f1-c4e877f996ee-master.m3u8https://video.igem.org/videos/embed/r2DA5j5aay3gfbYPhkcurR598092025-11-11T04:58:50.269ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/sQt2AWKxyWnNUj7rk17GEjhttps://video.igem.org/lazy-static/thumbnails/4913abf0-df41-4151-bef5-02c79a954b06.jpgConstruction and Application of Red Light Induced Nanobody Production SystemCancer has emerged as a global public health challenge. In recent years, nanobodies have garnered significant attention in anti-tumor therapy due to their high affinity, low immunogenicity, and excellent tissue penetration. While commonly used production systems include mammalian cell and yeast expression platforms, they remain costly and intricate. Consequently, developing a safe, controllable, and efficient antibody production system is crucial for advancing tumor therapeutics. This study aims to develop an efficient and controllable nanobody production platform utilizing a red light-induced gene expression system in Escherichia coli. By integrating red light-mediated gene regulation technology with the robust protein production capacity of E. coli, we will achieve precise control over nanobody expression. This system will enable real-time regulation via red light signals, reducing production-associated side effects and energy consumption, while significantly enhancing the efficiency and quality of nanobody production.https://static.igem.org/peertube/streaming-playlists/hls/d951f665-9b5c-48b6-b2a4-6a393ff5235e/40059e33-82dc-4fe5-9619-2702ddf72041-master.m3u8https://video.igem.org/videos/embed/sQt2AWKxyWnNUj7rk17GEj635012025-11-11T05:02:15.648ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eDFPkV4bUNi4LGUg7bN7zphttps://video.igem.org/lazy-static/thumbnails/a7880efa-266c-474c-8a98-cc265dae418f.jpgHelicobacter pylori Nanobody TherapyHelicobacter pylori (H. pylori) infection can lead to severe health complications. Current treatments primarily rely on antibiotics, but increasing resistance due to overuse has resulted in frequent therapeutic failures, potentially progressing to more serious conditions. Urease is a critical factor for H. pylori colonization and pathogenicity in the stomach, making its inhibition essential for reducing infection risks. This study focuses on constructing a gene expression system for recombinant nanobodies targeting the H. pylori urease subunit (UreB) and exploring their production in food-grade probiotic bacteria. By delivering these nanobodies via live probiotics, the approach aims to achieve direct and precise prevention and control of H. pylori infection. The research establishes a solid foundation for developing immune-based therapies against H. pylori, demonstrating significant innovation and application potential.https://static.igem.org/peertube/streaming-playlists/hls/6e89dc16-4602-45c6-9d1c-99b3c46b41b9/26c2a0c2-ff92-45ee-896c-8533be04d1d2-master.m3u8https://video.igem.org/videos/embed/eDFPkV4bUNi4LGUg7bN7zp608002025-11-11T05:02:37.517ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mterWucvgcBELP7Jka3z1Thttps://video.igem.org/lazy-static/thumbnails/aba202dd-6d59-4a37-a397-0aec16076194.jpgFluBlockers: Synthetic Sentry at the Nasal Gate—Variant-Proof Armor Against InfluenzaInfluenza A virus (IAV), characterized by its high mutability and cross-species transmission capability, has triggered multiple global pandemics. Existing vaccines and antiviral drugs face limitations such as short-lived protection, target escape, and drug resistance. To address the critical challenges in respiratory infection prevention, this project employs synthetic biology to engineer nasal-colonizing probiotics (Lactobacillus rhamnosus LGG). By sensing the virus, triggering a cascade response, and ultimately realizing virus neutralization, a multi-module synergistic chain closed-loop defense system is constructed with these probiotics. Additionally, a dual biosafety mechanism is also incorporated, which enables rapid self-destruction triggered by environmental leakage or clinical risk while giving the population the freedom to control intervention. This innovative strategy pioneers a novel synthetic biology-driven approach for influenza control, offering significant public health implications.https://static.igem.org/peertube/streaming-playlists/hls/a5c42463-5266-4f3d-a3df-b0d7f8212317/39ff1fbe-a57e-4408-bf5e-7d68f597510d-master.m3u8https://video.igem.org/videos/embed/mterWucvgcBELP7Jka3z1T593022025-11-11T05:04:06.877ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/txd6mPGUv9TUDhuTiyf5PWhttps://video.igem.org/lazy-static/thumbnails/04489de1-bc23-4956-950c-858f21d02aee.jpgLUCID: Lung Cancer Integrated DiagnosticsLUCID is a two-component diagnostic tool for the early detection of non-small cell lung cancer (NSCLC), consisting of biosensor - OncoSense and AI model - Cancerna. OncoSense is a optical fiber biosensor for the detection of biomarkers AGR2 and CEA elevated in patients with NSCLC at early stages. Optical fiber base allows for the immobilization of binding ligands, as antibodies or aptamers. Cheap cost of fabrication and rapid detection time make OncoSense promising novel tool for the cancer detection. Cancerna is an AI assistant tool for the analysis of computer tomography (CT) scans. Analyzing CT scans as the 3D image via Lung-RADS implemented classification, Cancerna becomes the everyday tool for the radiologists. Additionally, to explain and justify its output Fuzzy logic is implemented. LUCID has its impact on diagnostic world not only by presenting a new way of diagnostics, but also by improving the work experience with already established ones.https://static.igem.org/peertube/streaming-playlists/hls/df0240bd-a876-4f63-95ee-984ea01ffdfc/df60a144-693d-4bb6-a749-ddd629bd7dbb-master.m3u8https://video.igem.org/videos/embed/txd6mPGUv9TUDhuTiyf5PW590082025-11-11T05:13:04.702ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kKzEVvTfZoPuRZxRG4GWK8https://video.igem.org/lazy-static/thumbnails/eeb627f7-7f87-461f-a452-85f78aaa61e6.jpgRedefining Fatigue: Synthetic Biology Captures Sports Science Signals in SweatAs more people pursue fitness to improve their health, the lack of scientific training guidance remains common. Without real-time feedback, many unknowingly overtrain, increasing the risk of injury. Lactate—a key marker of fatigue, training intensity, and anaerobic metabolism—is still mainly detected through costly instruments and invasive blood sampling, limiting its everyday use. To solve this, we developed a synthetic biology-based biosensor using engineered E. coli to express lactate oxidase, enabling detection of lactate in sweat through either a visible color change or an electrochemical signal. Our goal is to make scientific, precise training accessible to everyone. Whether for beginners or professional athletes, our sensor provides real-time insights into physical status, supporting smarter workouts and healthier progress.https://static.igem.org/peertube/streaming-playlists/hls/9ff35e00-326c-4ce4-81f1-9a7b0f93c08d/2d9692d0-f580-4717-99cd-2e670da30bf1-master.m3u8https://video.igem.org/videos/embed/kKzEVvTfZoPuRZxRG4GWK8482002025-11-11T05:12:26.660ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/2f3A6VYPeVeqXBUjCe4n1shttps://video.igem.org/lazy-static/thumbnails/3d605149-9a0d-43fb-b049-5b9e91f691ac.jpgALSenseAmyotrophic Lateral Sclerosis (ALS) remains one of the most urgent challenges in neurology, with no curative treatment and an average diagnostic delay of <12 months that severely limits therapeutic opportunities. ALSense aims to change this paradigm through a synthetic biology–based biosensor capable of detecting ALS-specific biomarkers from a small blood sample. The system combines neurofilaments, which reflect axonal injury, with cryptic peptides derived from TDP-43 dysfunction, a molecular hallmark of ALS. This dual-biomarker strategy provides a rapid, minimally invasive, and affordable diagnostic tool that can support early detection—potentially even before symptom onset. Beyond diagnosis, ALSense enables disease monitoring, accelerates clinical trial enrollment, and reduces the economic burden of late-stage care. By uniting innovation, accessibility, and clinical need, ALSense reimagines ALS diagnosis as a precise and scalable solution with potential expansion to other neurodegenerative disease. ALSense seeks to give patients and families what medicine still cannot: more time, options, and hope.https://static.igem.org/peertube/streaming-playlists/hls/0a0f2576-15ec-4d16-9a2e-34c782f27a56/df9ac9c0-9294-452a-a2c1-ba88cfc956b7-master.m3u8https://video.igem.org/videos/embed/2f3A6VYPeVeqXBUjCe4n1s585062025-11-11T05:16:51.798ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cmPqhCYgS8oPA1dGthBaUFhttps://video.igem.org/lazy-static/thumbnails/418a0060-7b10-4500-89a1-378bd9df9856.jpgAvisptosisOur project aims to construct a novel defense system against avian influenza viruses that currently threaten global food security, utilizing synthetic biology as our primary approach. Rather than developing orthodox defense systems such as drugs or vaccines that inhabit viral entry into cells or viral replication, we are developing an innovative mechanism that prevents viral amplification within animal hosts by "actively inducing apoptosis in cells infected with influenza virus." Our ultimate goal is to suppress highly pathogenic avian influenza(HPAI) pandemics, thereby making significant contributions to improving food security issues and maintaining public health.https://static.igem.org/peertube/streaming-playlists/hls/5bfc9f9d-6eda-42f6-ad9b-50587415568b/82b91f94-0d64-4330-aab7-1f2834062b1f-master.m3u8https://video.igem.org/videos/embed/cmPqhCYgS8oPA1dGthBaUF594012025-11-11T05:17:58.057ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/bQKe6TpGSiXywXDYWCy6HLhttps://video.igem.org/lazy-static/thumbnails/3741fcb5-c491-4331-9632-7e82c0d271d8.jpgSlimSpore: Revolutionizing Fat ManagementObesity is the main cause of many diseases, and the number of obese people worldwide is increasing at an alarming rate. In China, issues such as adolescent obesity have seriously affected the lives of many people. As a result, the country has put forward the concept of the "Year of Weight Management". Our goal is to make the sqr and fcsd enzymes produced in large quantities by special Escherichia coli into tablet or capsule forms to help with fat loss and blood sugar reduction, and we have built home and medical versions of hardware to assist in measuring the hydrogen sulfide content in patients' bodies.https://static.igem.org/peertube/streaming-playlists/hls/57c9b9f9-4350-490f-af8d-b1ede92503aa/521955ef-4afc-4825-9999-2762854ff30f-master.m3u8https://video.igem.org/videos/embed/bQKe6TpGSiXywXDYWCy6HL720032025-11-11T05:20:46.059ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/oVbgUfx14PSuz2AZpGZJL8https://video.igem.org/lazy-static/thumbnails/e98c9916-0376-40b7-a26d-e39ebc2bbc42.jpgFoCas: A Novel Antimicrobial-Resistance Treatment and Infectivity Inhibition PlatformThe escalating crisis of transmissible antimicrobial-resistant bacterial infections demands innovative therapeutic approaches that move beyond traditional antibiotics. In response, our team presented the concept of FoCas, a novel platform engineered to directly address the dual challenges of drug resistance and infectivity. FoCas leverages a two-component system: the CRISPR-Cas9 gene-editing system for precise genetic targeting and cleavage, and a DNA origami nanostructure as a smart delivery and targeting vehicle. The DNA origami is programmed to recruit and protect the sgRNA/Cas9 complex, selectively bind to specific pathogen (e.g. MRSA), efficiently enter the cell with subsequent CRISPR-Cas9 activation to precisely cleaves and disables the gene responsible for antibiotic resistance (e.g. mecA). By combining precise genetic disruption with targeted delivery, FoCas may possess great potential as a candidate for future antimicrobial therapy, holding immense promise for dealing with superbug infections.https://static.igem.org/peertube/streaming-playlists/hls/b995cd4f-f83a-476a-8156-571d3de054ef/498e8d65-8537-430f-a4e4-dbc270dd17a2-master.m3u8https://video.igem.org/videos/embed/oVbgUfx14PSuz2AZpGZJL85490262025-11-11T05:21:10.236ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/54KTVFcPtkiRcjmMrQ7VWihttps://video.igem.org/lazy-static/thumbnails/152675bc-c352-474c-a6e6-1f403f959cce.jpgDevelopment and Functional Analysis of a Lab-on-a-Chip Model for NRAS^G12D Mutant Multiple MyelomaMultiple myeloma progression is driven by genetic alterations; RAS-pathway mutations (e.g., NRAS^G12D) increase proliferation and motility. Conventional 2D cultures miss these behaviors, and animal models are slow, costly, and ethically constrained. We engineered NIH3T3 cells expressing control, NRAS^WT, or NRAS^G12D with an mCherry reporter for direct visualization and genotype validation. Using a PDMS lab-on-a-chip that mimics a bone-marrow-like matrix, we quantified growth (CCK-8) and migration (scratch wound healing vs on-chip Matrigel infiltration). NRAS^G12D accelerated wound closure and enhanced 3D invasion. Treatment with the MEK inhibitor U0126 produced mutation-dependent growth suppression, confirming pathway involvement. Overall, this reproducible 3D chip links genotype to pharmacologic response in a tissue-like context, offering a scalable route to reduce animal use and to speed evaluation of AI-nominated compounds and future co-cultures with stromal or endothelial cells for both mechanism and screening.https://static.igem.org/peertube/streaming-playlists/hls/20ead65d-d058-41f4-88a3-5fa9f5d44891/3509a963-0c72-4005-810c-abcf89ed6131-master.m3u8https://video.igem.org/videos/embed/54KTVFcPtkiRcjmMrQ7VWi544032025-11-11T05:23:22.516ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/kHku1E5pBxJAK6nJ5oR8Skhttps://video.igem.org/lazy-static/thumbnails/b6c2fb02-77a4-4dad-a150-63e9201e2cd2.jpgLiRA – A Dual-Input RNA Logic System for Precise Detection and Treatment of HBV-Driven HCCMost cancer treatments, from chemotherapy to targeted inhibitors, act systemically, killing cancer cells but also damaging healthy ones. This is due to a central problem in oncology: few cancers have a single biomarker both unique and abundant enough to be safely used as a therapeutic trigger. Hepatocellular carcinoma (HCC), especially when driven by hepatitis B virus (HBV), exemplifies this challenge. Markers such as GPC3, AKR1B10, and RP11 are elevated in tumors but also appear in healthy tissues, making single-signal therapies inherently risky. LiRA overcomes this through a programmable intracellular RNA logic gate inspired by Boolean computation. Built on the RADAR technology, LiRA activates only when two biomarker transcripts are detected together within the same cell, ensuring precise activation. In HEK293T, LiRA sensors achieved up to 23-fold activation and demonstrated strict AND-gate behavior. By replacing reporters with a therapeutic output, LiRA allows for targeted treatment, paving the way for next-generation therapeutics.https://static.igem.org/peertube/streaming-playlists/hls/9fa322ca-c75a-4a71-bf72-25cd32c3cceb/9fbc9f3f-5859-4fe1-a92a-d2f30dd6f5aa-master.m3u8https://video.igem.org/videos/embed/kHku1E5pBxJAK6nJ5oR8Sk627062025-11-11T05:25:51.205ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1NrLK6vu2djQfVRVgV679yhttps://video.igem.org/lazy-static/thumbnails/847babe0-30ac-479a-bd6a-12249a4486c7.jpgOral Health Guardian: Engineered Lactobacillus for Real-Time Monitoring of Dental Caries and Biof...Dental caries is the most common oral disease, with an incidence rate exceeding 70% in the population. The biofilm of dental plaque, formed by Streptococcus mutans (S.m.) and other bacteria, minerals, and food debris through co-aggregation adhesion, is the main culprit in the development of caries. It is particularly concerning that due to a lack of oral health education, the public often fails to recognize the early symptoms of caries. Early caries in hidden areas are even harder to detect, exacerbating the problem. To address these issues, our team has designed a biological system capable of locating and eliminating high-risk plaque biofilms. Specifically, we've integrated the signal reception module of the quorum sensing system, Com system, from S.m. into probiotics (Lactobacilli), creating engineered bacteria. Additionally, we've developed a unique signal amplification system. When the co-aggregated engineered bacteria within the biofilm receive virulence signals from S.m., they trigger the expression of fluorescent proteins and antimicrobial peptides, thereby enabling the localization and elimination of plaque.https://static.igem.org/peertube/streaming-playlists/hls/067c187b-21de-43af-b4f7-8c3308e02b00/a3332284-6879-42aa-b3e0-6ae0bea32d1c-master.m3u8https://video.igem.org/videos/embed/1NrLK6vu2djQfVRVgV679y353062025-11-11T05:23:38.956ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pAWFp7BwBuLMBEzGNBHkDwhttps://video.igem.org/lazy-static/thumbnails/24ed8831-6bc5-4b60-940a-0d3d47d1384b.jpgTRACER: Targeted Relapse Assessment via Cellular Effector ResponseTRACER is a tunable cell-based sensor that detects CD19 and reports only when the signal is strong. Its core is a SynNotch receptor that, upon CD19 engagement, releases a transcription factor to activate a reporter. An intracellular inhibitor binds the transcription factor and blocks promoter access until its concentration surpasses a preset buffer, creating a built-in threshold that filters weak signals. Using a design-build-test-learn loop, we optimized promoter strength, DNA ratios, and inhibitor dose. Dry-lab models predicted SynNotch cleavage, inhibitor binding, and reporter output, guiding mid-range expression for stable control. Wet-lab assays in HEK293T cells confirmed contact-dependent activation and graded suppression with increasing inhibitor copy number. Fixing SynNotch:Reporter at 1:10 lowered baseline, and titrating the EF1α-driven inhibitor shifted activation predictably. TRACER enables adjustable sensitivity without redesigning the receptor, offering a compact, modular platform for robust CD19 detection adaptable to other outputs and formats.https://static.igem.org/peertube/streaming-playlists/hls/bf232cb6-edeb-4b29-9ada-776da0e73b04/831fa7e2-baa4-459d-9059-7136c53bfdf6-master.m3u8https://video.igem.org/videos/embed/pAWFp7BwBuLMBEzGNBHkDw615032025-11-11T05:31:14.955ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/jr7zfGbmpRyHNjjMxd4WV7https://video.igem.org/lazy-static/thumbnails/410cce33-9512-4ced-bf40-aa20baf96007.jpgA History of Art & Design in iGEM projectsA panel discussion about art & design concepts in past iGEM projects, exploring the motivations of iGEM teams including an artistic or design element in their projects. How did these aspects influence the course and scope of the project itself and what did they add to the project overall? Did these result in interesting collaborations with artists or designers?https://static.igem.org/peertube/streaming-playlists/hls/9546241e-7e4a-4368-bd25-a43753850378/20ab7ed4-02e2-4188-a12c-493f0721fb78-master.m3u8https://video.igem.org/videos/embed/jr7zfGbmpRyHNjjMxd4WV71625022025-11-10T21:46:22.721ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/xojVGGjXXdLHt5badN2o2Ehttps://video.igem.org/lazy-static/thumbnails/31278e7d-c25e-4c53-ba68-28bec90c10da.jpgSOD Shield: Novel Eye Drops Prevent Oxidative CataractsCataracts, a leading cause of global blindness, primarily result from oxidative damage to lens proteins. Current treatment relies on invasive surgery. Superoxide dismutase (SOD), a key antioxidant enzyme, neutralizes reactive oxygen species but suffers from instability and rapid degradation, limiting its therapeutic potential. Manganese superoxide dismutase (Mn-SOD) is an important subtype of the SOD family. This enzyme is closely related to the occurrence and development of cataracts. Our project employs computational biology and machine learning to engineer thermostable, high-activity Mn-SOD variants. These variants will be characterized in E. coli. Furthermore, a multi-scale mathematical model will be developed to simulate the spatiotemporal efficacy of Mn-SOD when delivered as an eye drop, from catalytic kinetics to reaction-diffusion within the eye. The goal is to develop engineered Mn-SOD as a core component of novel eye drops, offering a non-invasive strategy for cataract prevention and early intervention to alleviate the global disease burden.https://static.igem.org/peertube/streaming-playlists/hls/fe29532c-4151-435f-b4fe-18a700521f40/aea10e66-19a5-41b1-990f-e885e1e53589-master.m3u8https://video.igem.org/videos/embed/xojVGGjXXdLHt5badN2o2E554052025-11-11T05:42:48.179ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/jJmD4z27T2s63CXdU6bQZphttps://video.igem.org/lazy-static/thumbnails/fbc2cad9-94cc-4a74-9931-89f1d16e4427.jpgByeFilmByeFilm is a synthetic biology system using engineered *E. coli* to secrete Dispersin B, Proteinase K, and DNase I, degrading biofilm polysaccharides, proteins, and eDNA to enhance antibiotic action. A λcI857 thermal lysis switch triggers enzyme release at ≥37 °C, ensuring localized activity and biosafety. This approach offers a minimally invasive treatment for prosthetic joint infections and shows potential against other biofilm-related conditions such as catheter infections, chronic wounds, and dental plaque.https://static.igem.org/peertube/streaming-playlists/hls/97ae7415-5650-44f5-a040-a912dd89c7a1/cad1adba-6a63-440f-b63c-09d6dc170530-master.m3u8https://video.igem.org/videos/embed/jJmD4z27T2s63CXdU6bQZp631052025-11-11T05:46:00.712ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/gXrjjnGJWpPgJwNoWsQx3jhttps://video.igem.org/lazy-static/thumbnails/86c4944b-654a-4c7b-b1c3-3cb8bdc13210.jpgTowards Biotechnology Design ConsultanciesThe digital revolution, often credited with innovations from silicon valley through the 1980s - now was enabled through the partnership of technology companies with a wide range of design consultancies (including industrial design and graphic design and, ultimately lead to the creation new fields of design: Interaction Design, Service and Experience Design , Information Architecture etc). This panel session will address whether such collaborations are needed now for biotechnology. Can Design be a driver for new innovation and where, if anywhere are the design consultancies to address the new opportunities and challenges enabled by biotechnology?https://static.igem.org/peertube/streaming-playlists/hls/813696b3-15b2-475a-8afa-741635c0d542/7d22119a-c685-4f48-a99d-388443213250-master.m3u8https://video.igem.org/videos/embed/gXrjjnGJWpPgJwNoWsQx3j1797012025-11-10T21:52:08.765ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/9pCVA38Ykdp74zqGnypwS8https://video.igem.org/lazy-static/thumbnails/51e4f0c9-d8f7-4f1f-953a-cc343d03bb7f.jpgNanosphinXOur project began with bioinformatic analysis and flow cytometry experiments, which revealed that breast and pancreatic cancers frequently exhibit upregulation of both CD47 and HER2 receptors. To address this challenge, we designed a bispecific fusion protein incorporating an active antibody fragment targeting HER2 and a nanobody targeting CD47. These designed fragments, along with those retrieved from existing databases, formed a library of candidate antibody fragments. The most stable fragments with the lowest binding free energy were selected for the assembly of the active bispecific antibody, NanosphinX. Two assembly strategies were tested to link the two selected active antibody fragments into the final bispecific format. Cell viability assays demonstrated that NanosphinX exhibits cytotoxic effects against wild-type breast cancer cells and maintains strong activity even in trastuzumab-resistant cells, effectively inhibiting tumor growth. It also enhanced the cytotoxicity of gemcitabine in gemcitabine-resistant cell lines, providing a rational basis for combination therapy with gemcitabine.https://static.igem.org/peertube/streaming-playlists/hls/4415f89d-d9da-4220-bcef-ce9cb590cc4b/717da622-6e04-48d8-b2de-5e6bfacb64a6-master.m3u8https://video.igem.org/videos/embed/9pCVA38Ykdp74zqGnypwS8648012025-11-11T05:47:50.959ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7jEivTYHf4HvUtxTYqYvkchttps://video.igem.org/lazy-static/thumbnails/6e358a11-8e9c-4ed6-b2ef-8a735580785b.jpgPHOENICS: Smart Synthetic Immune Cells for Precision OncologyWe present PHOENICS, a modular signaling platform that uses phosphorylation logic to enable programmable, ligand-specific cancer therapies. Combining synthetic GPCR and MESA receptors with kinase/phosphatase computation and tunable expression or secretion outputs, PHOENICS provides rapid, reversible, and retargetable control of therapeutic activity. Supported by the in silico optimization platform SPARC, it offers flexible adaptation to distinct tumor microenvironments and therapeutic effectors. Beyond the bench, we built an educational innovation ecosystem that equips future pioneers with the network and knowledge to navigate the challenges of translational research. Uniting innovation and education, PHOENICS drives modular precision oncology and empowers future translational innovators.https://static.igem.org/peertube/streaming-playlists/hls/3331d302-b8cb-43b1-b13f-5867b39261ed/52da5713-5ded-4e81-9af1-4a8eb0b27944-master.m3u8https://video.igem.org/videos/embed/7jEivTYHf4HvUtxTYqYvkc6460192025-11-11T05:49:41.015ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eZCMePM4NqDAhvfntgnArLhttps://video.igem.org/lazy-static/thumbnails/43cc2ae7-ecf3-4dd6-8ffd-55c68672a7c4.jpgAechmiSepsis is a life-threatening condition caused by the body’s extreme response to infection. Each year, it affects 49 million people worldwide and causes 11 million deaths, but early diagnosis greatly improves survival. Aechmi emphasizes patient autonomy, equitable access, and well-being. Its design was shaped through engagement with survivors, clinicians, bioethicists, and marginalized communities. Aechmi integrates a CRISPR/Cas13a-based microRNA detection mechanism with a Catalytic Hairpin Assembly (CHA) amplification circuit. In the presence of bacterial sepsis-associated microRNA biomarkers, selected through machine learning-based data analysis, Cas13a triggers CHA. This produces an electrochemical signal, making our system suitable for future integration into an electrochemical biosensor for real-time monitoring of the biomarkers. The proper functioning of the biological mechanism is verified through modeling based on thermodynamic and kinetic analyses of all the reactions involved.https://static.igem.org/peertube/streaming-playlists/hls/7152dd2a-af56-41f9-92f5-71d712f478f6/f9e17f58-c76e-4993-a0a0-f94034b212bf-master.m3u8https://video.igem.org/videos/embed/eZCMePM4NqDAhvfntgnArL520032025-11-11T05:36:15.192ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/26fCV8Fg994rF89QLBrsr3https://video.igem.org/lazy-static/thumbnails/b186525d-30db-4127-9b0f-9457e3452910.jpgUsing SELEX Technology to Screen Targeted Molecular Probes for Detecting Brain-Derived Tau ProteinAlzheimer's Disease (AD) poses a global challenge with over 56 million affected, yet early detection remains limited by invasive or costly methods. Our project combines synthetic biology and CRISPR-Cas12a technology: using SELEX to screen DNA aptamers specifically targeting BD-Tau, a key AD biomarker, and coupling this with CRISPR's trans-cleavage activity for sensitive, low-cost detection. This approach enables non-invasive, precise early AD screening, aiming to improve diagnostic accessibility and patient outcomes.https://static.igem.org/peertube/streaming-playlists/hls/08d4e0a8-0504-4be2-97eb-e120bbc462ec/9987653f-7749-44a9-b731-85590ecd25ce-master.m3u8https://video.igem.org/videos/embed/26fCV8Fg994rF89QLBrsr3611012025-11-11T05:45:02.018ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8mdiKhRrq2e6c1Rn2FAijjhttps://video.igem.org/lazy-static/thumbnails/c76a076e-647d-49bf-b096-d5dff1995414.jpgFloraSynse: Personalized Detection of Vaginal Dysbiosis Using Whole-Cell Biosensors and Electroni...This project aims to advance women’s health by developing an at-home diagnostic tool for continuous monitoring of vaginal health, with a specific focus on bacterial vaginosis (BV), a condition impacting nearly one in three women. Current diagnostic methods provide only a single-timepoint assessment, failing to capture the dynamic fluctuations of the vaginal microbiome. To address this gap, we propose a longitudinal monitoring approach that enables daily sampling and trend analysis. Our prototype integrates two key sensing modalities: a biosensor that detects putrescine, a biological amine associated with BV, and an optical pH sensor that provides complementary information about overall vaginal health. By tracking these biomarkers over time, we aim to generate a data-driven and personalized model of vaginal health, offering users deeper insight into microbiome dynamics and earlier detection of vaginal dysbiosis.https://static.igem.org/peertube/streaming-playlists/hls/3b826e0a-4e69-4830-93e5-c61c0adcbfaa/dd2c9675-8751-4bed-aebb-a6e19b123897-master.m3u8https://video.igem.org/videos/embed/8mdiKhRrq2e6c1Rn2FAijj529062025-11-11T05:48:13.607ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/2iTFiDMvokVve85iumKj3uhttps://video.igem.org/lazy-static/thumbnails/b7305381-dbf7-4166-ab3f-f70c2593396a.jpgA Dialogue on Art & ScienceThe round table session will explore the intersection of artistic practice and synthetic biology from both a creative and scientific perspective. Dr. Swierkowski, a Polish international new media artist and curator, will present his approach to shaping interdisciplinary projects, including how artistic questions shaping the development of research collaborations, partner selection, and conceptual framing. Prof. Mattanovich, a leading expert in industrial biotechnology at the Life Science University Vienna (BOKU) will contribute insights from his research and institutional perspectives, reflecting on his long-standing art-science cooperations.https://static.igem.org/peertube/streaming-playlists/hls/0a98a157-6a82-49bb-96d6-141dc8f7add0/7a38bb48-5e7d-483a-b72f-dc3c5948f345-master.m3u8https://video.igem.org/videos/embed/2iTFiDMvokVve85iumKj3u2120022025-11-10T22:03:49.936ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/sKs4bnB6jPo6zkAMjtFMwUhttps://video.igem.org/lazy-static/thumbnails/ea1d7664-0917-44b5-967c-c71edf5fe63e.jpgiGEM Concordia Montreal: ToastBustersThe only effective treatment for celiac disease is a strict gluten-free diet. While this approach allows individuals to manage their symptoms, it does not eliminate the risk of accidental gluten exposure due to cross-contamination. Our team is developing an approach centered around engineered probiotic bacteria capable of secreting gluten-degrading enzymes directly in the gut. Delivering enzymes capable of break down the immunogenic peptides responsible for triggering the immune response in individuals with celiac disease. In parallel, we investigated peptide caps that can bind to residual gliadin fragments, masking the key epitopes and preventing the immune system from recognizing uncleaved gluten. Together, these strategies highlight complementary ways to significantly reduce the concentration of harmful gluten fragments before they can activate the immune system, offering a potential layer of protection beyond the limitations of a gluten-free diet.https://static.igem.org/peertube/streaming-playlists/hls/d89ea4e4-be78-442a-9cfe-29c8e328179c/cf995a77-e7c5-42e7-9382-a771f0b98e09-master.m3u8https://video.igem.org/videos/embed/sKs4bnB6jPo6zkAMjtFMwU585052025-11-11T05:50:40.934ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4THP6ftMMPRSgaCpC6Je5xhttps://video.igem.org/lazy-static/thumbnails/b9d535a3-712d-49ab-8210-fc5e114632a4.jpgRectomeDy FotoZymogen: A Red Light-Programmed Microbial Therapeutic System for Targeted Colorecta...Colorectal cancer treatment faces challenges such as severe side effects from conventional therapies and a lack of precise, controllable localized treatment methods. To address these issues, we developed RectomeDy FotoZymogen—an engineered bacterial therapeutic system for colorectal cancer based on red light-controlled precise induction. Using the probiotic E. coli Nissle 1917 (EcN) as the chassis, we constructed four core modules: a Targeting Module (INP-HlpA) for tumor-specific anchoring; a Red Light-Induction Module (PadC-MrkH) that enables precise activation of gene expression via 660 nm irradiation; a Therapeutic Module delivering multi-mechanism anticancer molecules such as Coagulase and PD-L1 nanobodies; and a Safety Module ensuring automatic bacterial inactivation post-treatment. RectomeDy FotoZymogen is administered via a suppository with an embedded LED, achieving full-process precision control of "delivery-localization-activation-clearance." This system provides a localized, safe, and highly effective novel treatment strategy for colorectal cancer.https://static.igem.org/peertube/streaming-playlists/hls/1f841da1-ef3b-489d-a6bd-5f8697e35afb/78568277-edde-478f-ac73-15fd039a46c5-master.m3u8https://video.igem.org/videos/embed/4THP6ftMMPRSgaCpC6Je5x5990192025-11-11T05:52:00.641ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qJASmcLXrZHCfwq5nqdCGuhttps://video.igem.org/lazy-static/thumbnails/31fd810c-7c62-4beb-858a-9bdd4df23cd6.jpgTRACE – Redefining STI Testing Through Portable, Paper-Based DiagnosticsSexually transmitted infections (STIs) remain a growing global health challenge. Despite being treatable when detected early, testing rates are low due to asymptomatic cases, limited awareness, high costs, and inconvenient diagnostics. TRACE reimagines STI testing through synthetic biology by developing a cell-free, paper-based self-test that works without laboratories or trained personnel, enabling frequent use in low-resource settings. By uniting accessibility, sensitivity, and ease of use, TRACE empowers individuals to test frequently, reduce transmission, and improve global sexual health. The system combines rapid, room-temperature nucleic acid amplification via recombinase polymerase amplification (RPA) with a specific colorimetric readout. Both CRISPR-Cas and a novel DNA hybridization-based detection approach were evaluated to optimize cost, durability, and specificity. Extensive human practices research guided design and implementation, incorporating feedback from users, healthcare providers, and stakeholders. Through modeling, stakeholder consultation, and market analysis, we ensure real-world feasibility.https://static.igem.org/peertube/streaming-playlists/hls/c84e0dec-c760-4e8f-aa17-afbd53cbc2bc/4e661288-1bdc-49df-9e97-5ed1f7eb04fe-master.m3u8https://video.igem.org/videos/embed/qJASmcLXrZHCfwq5nqdCGu687052025-11-11T06:01:40.913ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/768ukthYLUNFFDHbGqtD9Vhttps://video.igem.org/lazy-static/thumbnails/047fe756-8e73-4c54-9042-b1f75a5108b6.jpgLANCET: A Novel Diagnostic and Therapeutic Combating Lyme Disease89,000 cases of Lyme disease were reported to the CDC in 2023, yet experts estimate that nearly half-a-million Americans are infected with Borrelia burgdorferi annually. This significant underdiagnosis is due to the rapid dissemination of the bacteria into tissue, causing current tests to rely on antibodies produced weeks post-infection. However, the outer surface protein, CspZ, persists in the bloodstream, allowing for early detection through LANCET. Our diagnostic workflow begins with proximity-dependent ligation to detect CspZ and produce DNA, which is then amplified by recombinase polymerase amplification. Cas12a targets this DNA, providing a user-friendly output through a lateral flow assay. Even with improved diagnosis, treatment continues to rely on antibiotics, contributing to antimicrobial resistance and failing to address post-treatment Lyme disease. LANCET offers a novel approach through a multiplexed CRISPR-interference system to silence critical genes, effectively killing the bacteria. Our initiative also includes community education, fostering proactive behaviors against Lyme.https://static.igem.org/peertube/streaming-playlists/hls/314e2a71-429d-4038-a20c-f65dc46478f1/b2bbfc0e-b61e-46c3-92a1-c65e0219d60e-master.m3u8https://video.igem.org/videos/embed/768ukthYLUNFFDHbGqtD9V6540532025-11-11T06:04:31.905ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4JXYaf52Kp5WpU8Bfiu5K7https://video.igem.org/lazy-static/thumbnails/d2af27f1-4561-42f9-ba0b-8144c0be8bde.jpgNANODEN - Nanobodies for DengueIn 2024, Brazil recorded the world’s highest number of dengue cases, with over 6 million suspected and 3 million confirmed infections. Foz do Iguaçu, in western Paraná, faced a severe outbreak, with more than 10,000 reported cases, 1,280 confirmed infections, and 22 deaths, leading to a State of Emergency. To address this situation, Nanoden proposes an innovative synthetic biology solution: to develop nanobodies capable of binding to the dengue virus envelope protein, followed by the genetic modification of the mosquito’s natural bacterium, Serratia marcescens, to produce these nanobodies. This interaction prevents the virus from entering mosquito cells, interrupting its transmission and offering a sustainable, long-term strategy for vector control.https://static.igem.org/peertube/streaming-playlists/hls/1e4b255f-828c-4075-b16c-5e2f16e15dc4/9f87ce76-2fc3-4863-861d-a0a6aafe44a7-master.m3u8https://video.igem.org/videos/embed/4JXYaf52Kp5WpU8Bfiu5K75430142025-11-11T06:03:28.496ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qLg2Q5feY9fJ4k1CrQBxaFhttps://video.igem.org/lazy-static/thumbnails/d007a01a-7177-4c55-8712-b825afd67f52.jpgRevitalyze: Restoring Glycosylation, One Vesicle at a TimeCongenital disorders of glycosylation (CDGs) are a group of rare metabolic diseases caused by defects in various stages of the glycosylation pathway. Errors in glycosylation can confuse cellular interactions, causing serious malfunctions in multiple organs and organ systems. The most common type of CDG is PMM2-CDG (or CDG-Ia), where the mutation in the PMM2 enzyme, which converts mannose-6-phosphate to mannose-1-phosphate, leads to decreased glycosylation rate. As a comprehensive solution to this problem, Revitalyze proposes engineering probiotics that deliver the functional PMM2 protein to the patient’s body cells via bacterial extracellular vesicles (bEVs), thereby allowing an enzyme replacement therapy that minimizes disruption in the patients' daily lives. Starting with PMM2-CDG, our delivery system can be expanded to any other type of CDG caused by mutations in enzymes, and potentially other disorders as well. Revitalyze is more than a treatment; it's a step toward hope for all rare disorders.https://static.igem.org/peertube/streaming-playlists/hls/c8895136-02ae-4b0f-b8fb-7528823016a5/f1c731da-4d37-4cfa-ba92-9bce28db7829-master.m3u8https://video.igem.org/videos/embed/qLg2Q5feY9fJ4k1CrQBxaF6060442025-11-11T06:05:57.049ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/uwPabVCZz9oirFAWuCpbekhttps://video.igem.org/lazy-static/thumbnails/e9b9274a-1e2b-47cd-b14c-8773205323ce.jpgMystiphage: A Generative Phage Bank Packaged in a Pill to Counter Drug-Resistant Infections at ScaleAntibiotic resistance is a growing global threat that requires new antimicrobial solutions. Phage therapy offers promise but is limited by the slow process of matching phage receptor-binding proteins (RBPs) to bacteria. Current prediction models lack generalizability and reliability. Mystiphage’s PHORAGE platform uses generative AI to identify and design synthetic RBPs for specific bacterial targets. By leveraging a curated RBP dataset and combining ESM-3 hallucination, Boltz-2 co-folding, and Markov Chain Monte Carlo validation, PHORAGE develops high-affinity RBPs. These predictions are validated through a wet lab pipeline including cloning, expression, and phage spotting assays. The EVADE hardware system delivers targeted therapy to the gut microbiome, connecting computational prediction with biological validation. This integration reduces the time from design to therapeutic use from months to hours. Mystiphage’s approach enables scalable, adaptive, and personalized phage therapies to combat bacterial pathogens.https://static.igem.org/peertube/streaming-playlists/hls/e70d420b-8a98-4b6e-a87b-c74e331d0f45/2a101841-a7e9-43ff-bd98-1519aee8cc1a-master.m3u8https://video.igem.org/videos/embed/uwPabVCZz9oirFAWuCpbek6750182025-11-11T06:09:45.575ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/nKnkYHRm97BZj87J4fiKQchttps://video.igem.org/lazy-static/thumbnails/59a8a8b7-b7ea-49b5-aff5-0a6edb87a72d.jpgIXPOSE: Unlocking DNA Detection Potential of TIGR-TasLithuania is a hotspot in Europe for tick-borne diseases, with thousands of people exposed to Lyme disease and tick-borne encephalitis annually. However, despite awareness of these common infections, a significant gap remains: we lack vital data on other pathogens circulating in wild tick populations. This missing information forces researchers, doctors, and public health officials to make educated guesses. To address this, we present a breakthrough solution using TIGR-Tas—a novel RNA-guided, DNA-targeting system. Unlike CRISPR-Cas, TIGR-Tas operates in a PAM-independent manner, expanding the range of detectable DNA sequences. By integrating TIGR-Tas with lateral flow assays and isothermal DNA amplification methods such as RPA, it becomes a powerful, field-ready diagnostic tool. With this system, we aim to uncover the hidden diversity of tick-borne pathogens, empowering healthcare, enhancing prevention, advancing research, and protecting communities throughout Lithuania and beyond.https://static.igem.org/peertube/streaming-playlists/hls/b01e0c46-a4d2-4b70-82f1-2b4f834310df/19a53fe6-2360-4b79-85c9-6b20ac4abba5-master.m3u8https://video.igem.org/videos/embed/nKnkYHRm97BZj87J4fiKQc581062025-11-11T06:10:39.338ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/wA2s6TEsfQXMCQKycsisYbhttps://video.igem.org/lazy-static/thumbnails/a0701d56-3655-4075-8359-e16ba7d2f96b.jpgMagnolyse: Engineered Magnetotactic Bacteria for Ovarian Cancer TherapyWe have aimed to develop a targeted, bacterial-based cancer therapeutic platform to enhance treatment options for ovarian cancer patients. This system will employ Magnetospirillum magneticum AMB-1, a bacterial strain which exhibits magnetotaxis and aerotaxis. We are engineering AMB-1 to produce the cytotoxic agent Cytolysin A to serve as a tumor-eliminating therapeutic. Cytolysin A production will be regulated by a heat shock promoter which is inducible by increased temperature as a result of an external alternating magnetic field. In addition, we aim to maximize the specificity of the therapeutic system by implementing a ligand on the surface of AMB-1 to the folate receptor alpha which is highly expressed in ovarian cancer cells. Our ultimate goal is to develop an innovative and targeted therapeutic option for those suffering with ovarian cancer. Ultimately, we hope to develop a platform that is generalizable to all cancers forming solid tumors.https://static.igem.org/peertube/streaming-playlists/hls/f7b25772-7a55-4535-a751-7f78cb03500a/1fcbdfe4-1b53-452d-aa81-17a10cdc2548-master.m3u8https://video.igem.org/videos/embed/wA2s6TEsfQXMCQKycsisYb630052025-11-11T06:11:43.636ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1UtLR3dxbJJgQnP4NWbxLUhttps://video.igem.org/lazy-static/thumbnails/f06125de-b192-41ca-8f8a-b4dda64d9799.jpgPublishing Interdisciplinary ResearchWorkshop held in collaboration with CUP Biotechnology Design which will introduce the process of publishing interdisciplinary work. The workshop will cover: The basics of publishing including the process of peer review, editing and preparation. Differences in disciple traditions of publishing in for example biological sciences, computing and engineering as well as humanities and design. Advice on preparing papers, exp. For CUP Biotechnology Design. Q+A Session with specific publishing advice.https://static.igem.org/peertube/streaming-playlists/hls/0753cab8-bda2-4794-849b-204281e32c78/c98e7802-2077-4014-b155-44b604c4dcc5-master.m3u8https://video.igem.org/videos/embed/1UtLR3dxbJJgQnP4NWbxLU3444032025-11-10T22:21:28.307ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/a1rKhv9sw8A4rTWSNPrA3Shttps://video.igem.org/lazy-static/thumbnails/6edd9e9e-eb04-4f73-aa54-f7366e449c78.jpgFluoro-free: A Probiotic to Capture and Remove Harmful PFAS from the GI TractPerfluoroalkyl substances (PFAS) are synthetic contaminants that bioaccumulate and are associated with adverse health effects. While remediation efforts target environmental cleanup, strategies to lower PFAS levels within the human body remain limited. We propose a probiotic-based therapeutic approach using engineered Escherichia coli Nissle 1917 (EcN) to sequester PFAS in the gastrointestinal tract. By capturing PFAS before absorption, EcN could reduce systemic exposure and enhance excretion. Our hypothesis is that bacterial PFAS uptake is primarily transporter-mediated. To maximize intracellular retention, we disrupted the TolC-AcrB efflux system. As a proof of concept, we inhibited AcrB using small molecule inhibitor Phenylalanine–Arginine Beta-Naphthylamide. Subsequently, we created a stable AcrB knockout via recA-mediated recombination.This work lays the foundation for probiotic therapeutics targeting PFAS exposure. Beyond the lab, we advance public outreach initiatives to educate and raise PFAS awareness and promote STEM accessibility in our community.https://static.igem.org/peertube/streaming-playlists/hls/48f21d59-d122-4c94-902e-4fafca20ee86/a47b310c-f7ce-4395-88f2-5eab708215c7-master.m3u8https://video.igem.org/videos/embed/a1rKhv9sw8A4rTWSNPrA3S70022025-11-11T05:53:08.046ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/xmtDPcsN9tfKEpLGgDdDKQhttps://video.igem.org/lazy-static/thumbnails/f153ec02-996f-43cb-9e2f-603bfec8f41b.jpgMeet the Art & Design Village CouncilMeet the Art & Design Village Councilhttps://static.igem.org/peertube/streaming-playlists/hls/fde73709-56ed-4634-a3dd-27a0a64e98b2/9bdcffb3-aec1-4a1e-b275-7e10eac653cb-master.m3u8https://video.igem.org/videos/embed/xmtDPcsN9tfKEpLGgDdDKQ1833052025-11-10T22:29:38.036ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/xj3odyuDGuhtUrVAdcNFtAhttps://video.igem.org/lazy-static/thumbnails/6d6f6fc5-3300-4132-a132-545a9b17697b.jpgKINETiC: Kynurenine-Depleting Immuno-Reversal Network in E. coli for Therapy in Colorectal CancerOur project is expected to provide a new idea and method for cancer treatment. In recent years, kynureninase (KYNase) has gradually attracted extensive attention in the field of cancer immunotherapy. We utilized synthetic biology methods and engineered bacteria to express KY Nase, regulating the metabolism of the KP pathway within tumor cells, consuming its downstream metabolite Kyn. This inhibits tumor immune escape, enhances the host's immune system response, and achieves tumor cell death. We utilized Escherichia coli BL21 (DE3) as the chassis cell and the hypoxic and high-lactic-acid regulatory ALPaGA subsystem as promoter, to express KYNase in the tumor microenvironment. We also made semi-rational modifications to KYNase, hoping to obtain an enzyme with better catalytic effect. We designed and built a PhiX174E lysis protein module to release KYNase extracellularly at the right time. For biosafety, we designed a suicide switch to prevent engineered strains from being released into the environment.https://static.igem.org/peertube/streaming-playlists/hls/fd9027a9-046c-4b8e-8f1c-7b0464749b1c/5af5221d-7b4d-4435-ad8b-83a133510f4f-master.m3u8https://video.igem.org/videos/embed/xj3odyuDGuhtUrVAdcNFtA627002025-11-11T06:14:43.012ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/99FYPRuvpM15RCvjxqw4Yqhttps://video.igem.org/lazy-static/thumbnails/9e876e4e-3de1-4d03-86d3-d5bf5e2b9d1f.jpgThe Bisphenol A Analysis Detection SystemBisphenol A (BPA) is an endocrine disruptor linked to developmental, metabolic, and reproductive risks in humans and wildlife. Lab analytics can quantify BPA accurately but are costly and inaccessible to most users. We present a low-cost detection toolkit that converts BPA binding into a visible reporter using a LexA-based yeast two-hybrid (Y2H) design. The estrogen receptor-α (ERα/ESR1) ligand-binding domain is fused to the LexA DNA-binding domain (pGilda) and the B42 activation domain (pB42AD); ligand-induced ERα dimerization juxtaposes BD and AD, activating yeast reporters. To boost sensitivity to BPA’s weak agonism, we engineered mutations in the ERα LBD (residues ~519–535) by splicing-by-overlap-extension PCR and cloned variants into pGILDA (bait) and pB42AD (prey). We will evaluate wild-type and mutant ESR1 by dose–response β-galactosidase assays with positive/negative controls and selectivity tests, as a foundation for future community kits.https://static.igem.org/peertube/streaming-playlists/hls/41ffb2a5-16d2-49fa-a32b-e17168093bc4/fdbd823e-08ae-461a-86a0-d8f32a048e0a-master.m3u8https://video.igem.org/videos/embed/99FYPRuvpM15RCvjxqw4Yq507072025-11-11T06:13:23.117ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mjhCiTmTY4y8XJCjnPRwdvhttps://video.igem.org/lazy-static/thumbnails/c2727c02-bdaf-4d7e-bb71-248273d3eaa5.jpgParkinson's Disease Treatment - New Probiotic TherapyCurrent treatments for Parkinson's Disease primarily rely on levodopa (L-DOPA), a dopamine precursor, to alleviate symptoms. However, traditional L-DOPA synthesis methods, including chemical methods and plant extraction, are inefficient and environmentally unsustainable. Microbial biosynthesis has emerged as a promising alternative, although its efficiency is limited by the conversion of chorismate to L-tyrosine. This study aimed to enhance L-DOPA production by optimizing the expression of the tyrA gene in Escherichia coli and screening different RBS. Furthermore, given that gastrointestinal symptoms are a common side effect of L-DOPA, constructing a probiotic strain capable of efficiently expressing L-DOPA could not only mitigate side effects by modulating the gut microbiome, but also achieve the goal of treating and alleviating Parkinson's symptoms through continuous drug release.https://static.igem.org/peertube/streaming-playlists/hls/a484683e-46fb-41aa-a69c-8a00b2425145/97d2ed92-5db3-4aa4-825f-a6c1364bad7d-master.m3u8https://video.igem.org/videos/embed/mjhCiTmTY4y8XJCjnPRwdv481032025-11-11T06:15:39.712ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/nQ1n6NoHa4mEre4vMEMkHPhttps://video.igem.org/lazy-static/thumbnails/e7478cce-aa90-4ea2-a05f-9609027dc0b9.jpgTRIAGNOSTICS: Spotting Remission is our MissionBreast cancer incidence is rising, primarily in women under 44. Despite being 10% of breast cancer cases, TNBC, a rare and aggressive form, has a higher rate of death (40% of breast cancer-related deaths) and recurrence (~40% of patients) compared to other breast cancers. The absence of progesterone, estrogen, and HER2 receptors means that traditional therapies are ineffective against TNBC. Patients have the best prognosis if the disease is diagnosed early, so to help detect TNBC recurrence, our team is creating a reusable, efficient, and accessible detector system. Our simple liquid biopsy test has a TNBC patient in remission pricks their finger and apply a droplet of blood to a tube with a simple detection device. In the presence of miRNAs 21 and 155 that are indicative of TNBC, toehold switches allow translation of a fluorescent reporter. Our device will be a significant step forward for at-home diagnostic tools.https://static.igem.org/peertube/streaming-playlists/hls/b0c3d646-a0de-47a1-b4e0-3c1422ec0d6d/fbaece9f-96cc-4494-8e2c-ec829aeb110b-master.m3u8https://video.igem.org/videos/embed/nQ1n6NoHa4mEre4vMEMkHP608092025-11-11T06:26:33.091ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/dUKhLzL27NUtFz7xME2qh4https://video.igem.org/lazy-static/thumbnails/d2c7e4e6-0cd6-4a4c-9bfc-846c3a766458.jpgAGEs Robber: Restoring Freedom for Diabetic Foot Ulcer PatientsDiabetes affects 589 million people globally, with 18.6 million new DFU cases yearly. DFUs cause infection, necrosis, and amputations, severely impacting life quality. Our project, AGEs Robber, integrates treatment and prevention. We created a hydrogel patch using soluble RAGE (sRAGE) to capture AGEs, reduce chronic inflammation, and promote healing while offering antibacterial and exudate-absorbing functions. For prevention, we conducted community outreach and designed a simple foot-monitoring device for early wound detection. This approach aims to reduce infection and amputation risks, healthcare costs, and improve DFU patients’ quality of life.https://static.igem.org/peertube/streaming-playlists/hls/688b0490-2912-41e6-a608-94b56bd09a6b/e70cfec9-2f86-41b2-8f8c-3b15ab3c61f4-master.m3u8https://video.igem.org/videos/embed/dUKhLzL27NUtFz7xME2qh4562032025-11-11T06:25:26.275ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/uS2f4Csf2xyoTc5oKiCW3hhttps://video.igem.org/lazy-static/thumbnails/391ceca7-1f26-425e-8e16-58a4fd7892da.jpgHepaSwitchHepatocellular carcinoma (HCC) is one of the most common and lethal cancers, with limited effective therapies. Our project, HepaSwitch, aims to develop a selective mRNA-based therapeutic system that induces pyroptosis exclusively in HCC cells. The system utilizes a toehold switch—a synthetic RNA regulator—designed to recognize HCC-specific biomarkers, such as alpha-fetoprotein mRNA. Upon detection, the switch activates translation of gasdermin, a pore-forming protein that triggers pyroptotic cell death. Using computational modeling, we optimized the toehold switch structure for minimal leakiness and high dynamic range. Experimental validation in vitro demonstrated specific activation in the presence of the target RNA and no significant expression in its absence, confirming its precision and safety potential. HepaSwitch represents a novel approach to RNA-based precision oncology, offering a programmable and modular framework for targeted cancer treatment adaptable to various tumor types.https://static.igem.org/peertube/streaming-playlists/hls/e9bbd630-1c17-43a4-9208-e3633632c82c/72675529-9ced-43a5-952d-a94e10207e76-master.m3u8https://video.igem.org/videos/embed/uS2f4Csf2xyoTc5oKiCW3h493042025-11-11T06:26:50.576ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/p7Tc1SEnEV7pdExw6whsffhttps://video.igem.org/lazy-static/thumbnails/3254e898-2c81-4e22-a169-65bb19d1d540.jpgHpBusters: Engineered Probiotic Yeast Equipped with the Target–Adhere–Eradicate SystemHalitosis, nausea, and bloating—these are discomforts that people with Helicobacter pylori (Hp) infection suffer from every day. As the culprit of chronic gastric diseases, Hp has infected over half of the global population. In 2025, integrating probiotic engineering with micromotor delivery, the Peking team constructed HpBusters. The sensing-and-therapy system and the adhesion system were designed and implemented in genetically modified Saccharomyces boulardii to sense the biomarker Nα-methylhistamine, and while adhered to Hp, to secrete the biofilm-degrading enzyme AiiA. Micromotors, based on calcium carbonate, propel the encapsulating pH-responsive microgels through the gastric mucus barrier, releasing probiotics directly at infection sites. Models were established to comprehensively evaluate and simulate the efficiency of HpBusters across all processes. Human practices were conducted to forge connections between our project and society. We hope this antibiotic-free strategy enables targeted reaction, biofilm eradication and long-term protection, offering Hp-infected patients a comfortable yet effective therapeutic alternative.https://static.igem.org/peertube/streaming-playlists/hls/bb3832de-5f87-447f-9c97-f7bb95a70a62/6b108333-2191-4973-a6db-abe71d2975d0-master.m3u8https://video.igem.org/videos/embed/p7Tc1SEnEV7pdExw6whsff6060242025-11-11T06:30:35.225ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9enGhgRru6NHnPoRbbcg11https://video.igem.org/lazy-static/thumbnails/1c8cc2e5-d623-4acf-8495-a7f4008a70b3.jpgsiREN: A Targeted RNAi Therapeutic Approach Against Chronic Lymphocytic LeukemiasiREN is a novel RNAi therapeutic approach for the treatment and management of Chronic Lymphocytic Leukemia (CLL). By targeting overexpressed proteins (ΒCL2 and BTK) through siRNA-mediated gene silencing, we aim to inhibit the uncontrolled proliferation of leukemic cells and induce apoptosis. Our goal is to suppress the survival pathways driving disease progression, thereby restoring normal cell death mechanisms. This gene silencing will be achieved by delivering siRNAs into cancerous cells via lipid nanoparticles, engineered with antibodies specifically targeting CLL cells. These modified nanocarriers are designed to target ROR1, a protein highly expressed on the surface of target cells, and to release the siRNAs inside them, effectively silencing the genes responsible for CLL pathogenesis, while minimizing interaction with healthy cells.https://static.igem.org/peertube/streaming-playlists/hls/42a725e3-11af-4ca1-984f-a82a3bbeedf4/3771c818-6eca-43b5-bdc2-416f99a01685-master.m3u8https://video.igem.org/videos/embed/9enGhgRru6NHnPoRbbcg115590172025-11-11T06:31:13.156ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/mZsgS6Z3xoKVgoX3SoDw5whttps://video.igem.org/lazy-static/thumbnails/04668383-0dee-463d-b3d3-57b97797066b.jpgSelective Proteolytic Botulinum Toxin Bioassay Based on Yeast (S.P.Y.)Botulinum toxin type A (BoNT/A), needing high-demand detection in medical aesthetics and food safety, prompts us to develop a simplified, accurate, fast, low-cost detection method to replace the traditional mouse bioassay. We use Saccharomyces cerevisiae to build a dual-yeast system: one acts as substrate to sense BoNT activity and release ligands, the other receives signals to express pigments for visualizing BoNT concentration, with coupled GPCR pathway and GAL system for signal amplification. It applies to quality inspection of medical aesthetic products and food safety, boosting efficiency and offering public accessible safety verification. This project can be applied in the quality inspection of medical aesthetic products and food safety testing. It not only improves the quality inspection efficiency of relevant institutions but also provides the general public with an accessible means to verify the safety of daily food products.https://static.igem.org/peertube/streaming-playlists/hls/a9fc5c16-8235-43a9-bbe6-f3d37ef361a6/f87aa189-e555-46a3-8dc3-9eebe8f19b37-master.m3u8https://video.igem.org/videos/embed/mZsgS6Z3xoKVgoX3SoDw5w4490142025-11-11T06:30:50.074ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5dZBvzdauyTUcELcATgsP7https://video.igem.org/lazy-static/thumbnails/14caa4d0-407e-4937-b4ba-79b211994a12.jpgReSET: Reprogramming the Suppressive Environment of TMEColorectal Cancer (CRC), the second leading cause of cancer deaths, lacks specific and effective treatments. Our engineered ReSET system uses the probiotic E. coli Nissle 1917 to detect lactate and hypoxia—key tumour microenvironment cues—and secrete an Anti-CD38 Nanobody-Fc fusion, reprogramming immunosuppressive Tregs into healthy cells. Simultaneously, it produces salicylate, a harmless reporter detected via our ReSense paper strip assay, indicating bacterial colonisation and active therapy. This dual-action system combines targeted immunomodulation with real-time monitoring, offering a precise and adaptive therapeutic platform for CRC treatment.https://static.igem.org/peertube/streaming-playlists/hls/2234fc14-3db9-4a6a-b30e-2a5d9b02c0dc/d76f05af-0ce6-4d4a-9630-00bf6476634e-master.m3u8https://video.igem.org/videos/embed/5dZBvzdauyTUcELcATgsP75910122025-11-11T06:34:06.636ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1uwzce2vR91KYopj1ghT8Uhttps://video.igem.org/lazy-static/thumbnails/63aa6cac-e00f-4c2e-aaf1-df7d95fd661b.jpgEngineered EcN for Neoeriocitrin Production in Colorectal Cancer TherapyColorectal cancer (CRC) incidence is rising globally and increasingly affects people under 40. Current therapies are invasive and often cause severe side effects. We developed a precision therapeutic strategy using engineered Escherichia coli Nissle 1917 (EcN). Neoeriocitrin, a natural flavonoid with antioxidant, anti-inflammatory, and immunomodulatory activities, shows promise in CRC prevention and adjuvant therapy but faces limitations of low yield and high extraction cost. To overcome this, we reconstructed its complete biosynthetic pathway in EcN by introducing VvRHM, UGT73B2, and Cm1,2RhaT, enabling efficient and controlled production. To ensure biosafety, we designed a dual suicide system: arabinose-inducible pBAD triggers in vivo lysis, while low-temperature-inducible pCspA provides environmental containment, both cooperating with MazF. This engineered probiotic integrates high-yield biosynthesis with strict biocontainment, offering a safe, controllable, and effective adjuvant strategy for CRC therapy, particularly for young patients with early-onset disease.https://static.igem.org/peertube/streaming-playlists/hls/03fbaa99-e370-4e31-a76c-45194da25a66/748b7c82-2be4-4bae-99ad-5a67848eb9f7-master.m3u8https://video.igem.org/videos/embed/1uwzce2vR91KYopj1ghT8U593022025-11-11T06:36:08.679ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/j2fTXSN1QmpcoBB2xfXViGhttps://video.igem.org/lazy-static/thumbnails/243e6061-bcb1-498b-8d89-1f8d88ae7326.jpgPRIME-Guard: A PRoactive Immune Modulation and Evasion-blocking Platform for Virus PreventionOur project aims to develop a CRISPRa/TetON fusion system for inducible antiviral gene activation, enabling precise control over immune and endocytic pathway upregulation in mammalian cells. By combining dCas9-VP64, rtTA, and sgRNAs within a modular delivery framework, we sought to create a tunable gene expression platform that could be rapidly activated through Doxycycline induction. Preliminary results have shown minimal to no detectable protein expression across varying Doxycycline concentrations and induction times. Moreover, the system’s capacity to induce downstream gene activation via independent or co-delivered sgRNAs remains uncharacterized. Despite these challenges, our work establishes an important foundation for refining inducible CRISPRa systems and contributes valuable insights toward achieving safe, controllable antiviral gene therapy.https://static.igem.org/peertube/streaming-playlists/hls/91f16b6a-0af1-4179-9d9d-782a2962490e/45b52464-730d-4757-83a2-e2bab7fb56ff-master.m3u8https://video.igem.org/videos/embed/j2fTXSN1QmpcoBB2xfXViG575022025-11-11T06:36:27.058ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/vEk1u8moUMKzgFC7qMPbZLhttps://video.igem.org/lazy-static/thumbnails/8ffea425-1cd9-40bc-834c-eb8c57672133.jpgLight the Way to Pain-Free — Far-Infrared Light-Regulated Bacterial Pain-Relieving HydrogelNETMAP-PaurTx-3 project aims to develop a light-controlled, non-addictive pain management system using engineered E. coli Nissle 1917 (EcN) expressing PaurTx-3, a sodium channel blocker, specifically at pain sites. The key innovation is the first light-controlled system for targeted pain management using engineered bacteria, integrating the NETMAP system with PaurTx-3 for precise spatiotemporal control. Experimental results show Gibson Assembly achieved 65% efficiency (vs. <10% for traditional PCR cloning), but PaurTx-3 solubility was only 15% (85% formed inclusion bodies). Hydrogel encapsulation maintained >80% bacterial viability and light-responsive expression. The critical challenge is PaurTx-3 low solubility, addressed by implementing a SUMO fusion tag. The project features multiple safety mechanisms including self-destruct systems and gene blockade, complying with FDA/EMA/WHO standards. Future work includes in vivo testing to develop a non-addictive pain management solution for cancer and burn patients.https://static.igem.org/peertube/streaming-playlists/hls/f032ffac-02c9-420b-8f8c-9ab9e6272926/a8fcd865-6233-4233-ae44-803870631f1a-master.m3u8https://video.igem.org/videos/embed/vEk1u8moUMKzgFC7qMPbZL600002025-11-11T06:38:38.060ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qfn8SDe1DMTxyrwXXeaHEphttps://video.igem.org/lazy-static/thumbnails/783105a0-aa09-4ec5-8b92-5b8b4b238aaa.jpgNeurobloom: Early Interventionists for Alzheimer’s DiseaseAlzheimer’s disease (AD) is a rapidly growing global health challenge, with limited options for early intervention. We developed Neurobloom, a synthetic-biology-based probiotic system using the safe strain E. coli Nissle 1917, featuring three integrated systems: System 1 enables continuous production of sakuranetin, reducing Aβ deposition and neuroinflammation through antioxidant and anti-inflammatory effects; System 2 produces lysophosphatidylcholine (LPC), which supports gut–brain axis regulation, improves synaptic function, and optimizes gut microbiota balance; System 3 incorporates a safety suicide circuit, ensuring the strain deactivates under abnormal conditions to minimize ecological risks. These systems work synergistically to deliver a sustainable, low-barrier, and adherence-friendly intervention, particularly suited for early-stage patients and high-risk populations. Neurobloom introduces a promising strategy for preventive and adjunctive AD care, paving the way toward more equitable and innovative cognitive health solutions worldwide.https://static.igem.org/peertube/streaming-playlists/hls/c45cc417-90f4-4b19-95b9-4ad6c4f6adcf/7713131e-024f-4898-adbf-d48a509c4a6c-master.m3u8https://video.igem.org/videos/embed/qfn8SDe1DMTxyrwXXeaHEp493012025-11-11T06:46:12.725ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/t2Kdwhgy1xtryMhuJ2ThQBhttps://video.igem.org/lazy-static/thumbnails/5946148e-9044-4000-bbd7-048cb54a4e44.jpgRethinking Protein Degradation: from TRIM-Away to ProgeraseWhat if we could program the cell’s own waste disposal system to eliminate harmful proteins? The ubiquitin-proteasome pathway offers exactly that possibility. Synthetic biology has already begun to harness E3 ubiquitin ligases to selectively tag pathogenic proteins for destruction. Among the most exciting tools are TRIM-Away and RING-Bait, both built on the remarkable TRIM21 - a dual-function protein that acts as both an antibody receptor and an E3 ligase. While TRIM-Away leverages the full protein with antibody guidance, RING-Bait strips it down to its catalytic RING domain, fusing it with a customizable bait. Building on this innovation, our project Progerase takes the concept one step further: targeting nuclear proteins that conventional systems cannot easily reach. Join us to explore how reprogramming TRIM21 can transform protein degradation into a precision tool and open new frontiers for synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/dae51ece-25ba-48f3-80d2-3f4071f93c8b/30568eef-bf43-4893-bc20-9e90b2288d4b-master.m3u8https://video.igem.org/videos/embed/t2Kdwhgy1xtryMhuJ2ThQB5490142025-11-11T08:13:11.736ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/booHL9236qWHA3WwkjMaDFhttps://video.igem.org/lazy-static/thumbnails/6be96b29-3d1a-413d-a050-53fee880ef51.jpgResearch on the Application of Mussel Adhesive Proteins in Antibacterial Coatings for Medical Dev...Mussel foot proteins (Mfps) are a class of proteins secreted by mussel byssus, featuring exceptional underwater adhesion, waterproofness, toughness, and durability. They exhibit great application potential in fields such as biomedicine, cosmetics, and medical coatings. However, the current production of Mfps mainly relies on direct extraction from mussels, a process that is costly, inefficient, and unable to meet the demand for high yield and consistent quality. To overcome this bottleneck, the present study aims to explore the use of Escherichia coli as a biosynthetic platform for the efficient production of Mfps through a heterologous expression strategy. Furthermore, by applying sequence-based molecular design, we seek to construct functional fusion proteins with strong adhesiveness, enhanced antibacterial activity, and good biocompatibility for the preparation of antimicrobial coatings for medical devices.https://static.igem.org/peertube/streaming-playlists/hls/541bc051-cac0-4c1e-b52f-afa9c341da55/f74ffd5c-36ea-4177-b35d-1a0ef7f3b931-master.m3u8https://video.igem.org/videos/embed/booHL9236qWHA3WwkjMaDF332072025-11-11T06:42:22.145ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/d83KwVTCFZWpEZppd2JZjHhttps://video.igem.org/lazy-static/thumbnails/b1d79381-4516-458b-915b-dbc26d3fa136.jpgThe Invisible Urgency: Seeing What the Eye Can’tBreast cancer remains the most diagnosed cancer and the leading cause of cancer death among women worldwide. Yet, delayed or inaccessible diagnosis continues to cost thousands of lives each year. In this talk, we explore the critical need for early, accurate, and accessible diagnostic tools in the fight against breast cancer. We will share real-world data, patient stories, and how our synthetic biology solution aims to close the diagnostic gap—especially in under-resourced regions. It's not just about detecting cancer; it's about saving time, and with it, lives.https://static.igem.org/peertube/streaming-playlists/hls/622990be-c669-4ef5-a804-f22728017ea1/700cfc04-2414-4714-ba5c-927b440dcaa0-master.m3u8https://video.igem.org/videos/embed/d83KwVTCFZWpEZppd2JZjH552032025-11-11T06:48:38.483ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/wVGdxCDWoZS8czcUkowuAZhttps://video.igem.org/lazy-static/thumbnails/de9bd403-fff5-4012-aba0-25c73dc42a12.jpgOpio-Rx: Transforming Opioid Diagnostics Through Rapid, Non-Invasive Biosensing TechnologyThe global opioid epidemic kills 600+ people daily—over 500,000 American lives lost since 1999. In India, 2.3+ million people suffer from opioid addiction, with Punjab and Haryana experiencing alarming proliferation. This $500+ billion global economic disaster demands immediate action, yet current detection methods fail when seconds matter most. Existing diagnostics are too slow, expensive, and complex for real-time emergency response, addiction treatment, and law enforcement—creating a critical gap between urgent need and available solutions. Opio-Rx revolutionizes opioid detection with the world's first rapid, point-of-care platform detecting multiple synthetic opioids—fentanyl, oxycodone, methadone, tramadol, and codeine—from saliva in under 5 minutes. Our breakthrough combines computationally designed aptamers with FRET-based biosensing and AI-powered mobile integration, delivering laboratory-grade accuracy anywhere, anytime. This commercial solution healthcare workers, first responders, and treatment providers need. Opio-Rx saves lives by enabling instant, life-or-death decisions preventing overdoses, transforming addiction recovery. Molecular diagnostics starts here.https://static.igem.org/peertube/streaming-playlists/hls/fa715d21-0214-4dc1-b0c4-7fd3642b564d/6330826d-3d35-4f0d-808c-28515e1c761a-master.m3u8https://video.igem.org/videos/embed/wVGdxCDWoZS8czcUkowuAZ486082025-11-11T06:48:57.713ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1GUV5dkr5Q69oJXk2DyR25https://video.igem.org/lazy-static/thumbnails/99798cb5-7d82-4192-87c7-4226bccc3915.jpgStartup ShowcaseStartup Showcasehttps://static.igem.org/peertube/streaming-playlists/hls/05b65c61-0472-450e-a33d-c7b37f528852/ecee9f0e-fddd-4023-8a97-a6d40cbe49da-master.m3u8https://video.igem.org/videos/embed/1GUV5dkr5Q69oJXk2DyR2590220352025-11-11T00:08:24.435ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/bef2rWSUL4QEFfYsm89Zekhttps://video.igem.org/lazy-static/thumbnails/fc11b957-71f8-417b-8f30-4e27bc63cda7.jpgResilience in Science: Lessons from a Team that Never Gave UpOur journey in iGEM is not only about science, but also about resilience. Coming from a context with limited resources, unexpected setbacks, and little institutional support, we often faced the question of whether we could continue. Yet, instead of giving up, we turned challenges into opportunities, and with determination, vision, and teamwork we built something truly innovative: a pioneering gene therapy approach for obesity. Through this talk, we want to share the lessons we learned along the way and inspire others who may find themselves in similar circumstances. Success in iGEM is not defined only by medals or prizes, but also by the ability to stand, persist, and create against the odds. For us, being at the Grand Jamboree is already a victory. We hope our story can empower other teams to believe in their potential and never stop striving for impact.https://static.igem.org/peertube/streaming-playlists/hls/52d4b2e4-3b9e-4c3c-a081-4394b8c4c7b9/2abc0df3-32a7-4772-8c19-65e0ab94fd49-master.m3u8https://video.igem.org/videos/embed/bef2rWSUL4QEFfYsm89Zek4050212025-11-17T10:27:17.089ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/4gdrqt6ohAHUgEqR9bmG6nhttps://video.igem.org/lazy-static/thumbnails/df38b130-facc-4fcb-96ca-310a530fa005.jpgAlgae in Everyday Lifehow these little organisms shape our lifeshttps://static.igem.org/peertube/streaming-playlists/hls/1a6b3ce7-a220-45f4-b467-d7369fa83bd7/50ad7320-3ca0-497f-b33e-cf00a439c427-master.m3u8https://video.igem.org/videos/embed/4gdrqt6ohAHUgEqR9bmG6n394002025-11-17T10:26:52.462ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/hV8k5Thdx7eVZQa9ixxN5Ehttps://video.igem.org/lazy-static/thumbnails/5465b6da-674c-44ea-ae03-79d274df0adb.jpgOpen Futures: How iGEM Helps Us Rethink the Future of ScienceIn this talk we share insights from the Open Futures project, which investigates iGEM as one of the world’s largest community-based open science ecosystems. Since 2003, thousands of student teams have explored new ways of collaborating across disciplines, sharing knowledge, and addressing societal challenges. Funded by the French National Research Agency (ANR), our research uses surveys, interviews, digital traces, and network analysis to examine iGEM at multiple levels — from how individuals develop skills and career paths, to how teams organize and innovate, to how the ecosystem as a whole evolves over time. By studying iGEM as a model for open and participatory science, we aim to understand how these collective practices foster innovation, enhance learning, and contribute to more inclusive and resilient research cultures for the future.https://static.igem.org/peertube/streaming-playlists/hls/88fd27b1-5baf-4453-b0db-b5dfaa7f736e/b842d669-de6b-4807-97c2-21604bb87a5d-master.m3u8https://video.igem.org/videos/embed/hV8k5Thdx7eVZQa9ixxN5E744022025-11-17T10:09:19.789ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/pfqHyGdHxJkXS6TRUCwwQXhttps://video.igem.org/lazy-static/thumbnails/888aa35e-3ae9-46e4-9dfa-2c7bbbaef817.jpgUnlocking the Power to Act Early: iGEM High School ProgramThis Live Stage illustrates the impact of the iGEM High School program through the voices of five young women from iGEM Outaouais—Canada’s only high school-led iGEM team. Their diverse journeys converge in one transformative experience: Samar gaining the confidence to network with politicians and sponsors while advancing her science; Émilie rising to become the team’s Student Scientific Director; and Sofia coordinating major events such as the Great Canadian iGEM Meet-Up and the Outaouais Climate Plan forum. Alongside them, two 16-year-old newcomers, Élia-Claude and Jeanne, share how their very first lab experiences already opened national and international opportunities, from Canadian radio interviews to Oxford’s BioXchange. Together, their stories show how iGEM High School not only prepares youth to contribute to the bioeconomy but, more importantly, unlocks self-agency early—giving them the confidence to act, lead, and innovate in science and in society.https://static.igem.org/peertube/streaming-playlists/hls/bc45d588-907b-42b2-8000-3769f5dbd77f/a59c91bc-18b5-4f32-b2d5-5d37a5f51d1b-master.m3u8https://video.igem.org/videos/embed/pfqHyGdHxJkXS6TRUCwwQX620002025-11-17T10:33:15.356ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/cQYbKL7VEqRuBRCNQjgtVfhttps://video.igem.org/lazy-static/thumbnails/e249f739-eae9-466e-a774-041454eaf7c9.jpgBuilding Okinawa’s First iGEM Startup: From Local Challenges to Global Biotech InnovationAs the first-ever iGEM team from Okinawa, we faced unique challenges: low public awareness of synthetic biology, limited local funding opportunities, and the absence of large biotech industries in the region. To overcome these barriers, we developed a sustainable business model, positioning our project not only as research but as a pre-seed startup. Through this approach, we successfully raised funds and engaged with local farmers, government, and industries. In this talk, we will share our entrepreneurial journey: how we transformed a local agricultural problem into a globally relevant biotech solution, and how we envision scaling from Okinawa to the world. Our experience demonstrates how student-led teams can pioneer innovation even in regions with limited biotech infrastructure—offering a model for others to follow.https://static.igem.org/peertube/streaming-playlists/hls/5feada0a-1a17-4ec8-b459-c5b6cb70c0d4/227d0523-13ac-4cfb-a3b6-68e6855cfd98-master.m3u8https://video.igem.org/videos/embed/cQYbKL7VEqRuBRCNQjgtVf655032025-11-17T10:40:07.357ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qcgC8zpnC8kZHq4M2EURFfhttps://video.igem.org/lazy-static/thumbnails/a708dcf7-b420-4d45-a9be-5f82a32709cf.jpgBio-Futurism and Synthetic AestheticsThis panel explores how synthetic biology, artificial intelligence, and inferential design are converging to shape a new paradigm of biofuturism. As biology becomes increasingly programmable—through tools like protein structure prediction, molecular design, and life simulation—we ask: - How can future biological systems be both scientifically functional and artistically meaningful? - How might art help reimagine the aesthetic logic of evolution? - In a world where life is constructed rather than merely observed, how should we redefine beauty, form, and sensation? Moving beyond “biology-inspired art,” this conversation considers aesthetic thinking as intrinsic to the language of life design. We invite interdisciplinary voices to imagine a future where biology is not only discovered—but co-created. https://static.igem.org/peertube/streaming-playlists/hls/c3ee2325-6a39-4887-bd3f-99fbece2c9a8/2fcdeb77-b423-4eff-8f5b-66df24d13e3f-master.m3u8https://video.igem.org/videos/embed/qcgC8zpnC8kZHq4M2EURFf1797052025-11-17T10:26:32.236ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/55ZBvZFdZA9c8SgYmEXVMphttps://video.igem.org/lazy-static/thumbnails/4a48cf32-2210-4195-a89e-d2829810afd4.jpgSynBio Communities Around The World - Part ITo make synthetic biology a major field of study in the twenty-first century, it is necessary to engage the general society in the scientific conversation, and together overcome problems with financing models, commercial translation of technologies, public perception, and laws. To achieve a more diverse representation of the synbio landscape, we see the need for international collaboration and knowledge sharing. Engaging regional leaders, representing SynBio organisations, to develop best practices for our international community; and understanding the current local challenges and what we can collectively do to overcome them. Above all, it’s important to enhance strong collaborations between the organisations, promoting an inclusive model, ready to embrace the future of SynBio, together.https://static.igem.org/peertube/streaming-playlists/hls/211708db-9eb8-4e8d-8693-51dadeef11b5/24489f5c-db21-4b2d-98c0-e998e752ddca-master.m3u8https://video.igem.org/videos/embed/55ZBvZFdZA9c8SgYmEXVMp2321092025-11-17T11:10:56.529ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/4gkdf9JHU66w52rFha836Whttps://video.igem.org/lazy-static/thumbnails/d3dc27e1-2129-420d-88f0-9f343c5b51ad.jpgIonis-Paris: Judging SessionEach year, cholera causes thousands of deaths in developing countries where access to clean water remains insufficient. Available oral vaccines depend on a strict cold chain (2–8°C), a fragile system that collapses in areas exposed to extreme temperatures and power outages. Climate crisis worsens this situation: flooding and droughts promote Vibrio cholerae proliferation. Spiky'Mune provides an innovative alternative: transforming Opuntia ficus-indica (prickly pear cactus) into an edible vaccine producing CTxB protein, a non-toxic immunogenic fragment of cholera toxin. This approach relies on the cactus's exceptional properties: tolerance to arid climates, rapid growth, and massive biomass production (200 tons/ha/year). Its cells naturally protect proteins against gastric degradation. Our strategy includes CTxB expression validation in E. coli, transient transformation of Nicotiana benthamiana, then stable cactus callus transformation. By eliminating refrigeration requirements and promoting local production, Spiky'Mune addresses logistical, economic, and climate challenges while pioneering edible vaccines against enteric pathogens.https://static.igem.org/peertube/streaming-playlists/hls/1a6f696b-41f1-463e-a49b-88c013cd7588/4d4fcce4-878d-478a-9b46-1212bbea039f-master.m3u8https://video.igem.org/videos/embed/4gkdf9JHU66w52rFha836W1555032025-11-17T10:49:19.478ZYES2025 Judging SessionsNOhttps://video.igem.org/w/kTDLCiufQfavqjSQ4xa3x9https://video.igem.org/lazy-static/thumbnails/ebc749bc-82d0-49cc-a4a3-ccd59724ab2b.jpgTsinghua: Judging SessionThe treatment of Baijiu vinasse, which contains hard-to-degrade carbon sources, is a significant environmental challenge. For our iGEM project, we designed an innovative dual-microbe system to tackle this issue and produce high-value succinate. We genetically engineered Trichoderma reesei to secrete laccase (from white rot fungus) and its native cellulase. This enables the simultaneous breakdown of lignin into short arenes and cellulose within the vinasse. Subsequently, the engineered Pseudomonas putida is introduced to uptake these arenes and direct them into its modified TCA cycle. We specifically engineered this pathway to overproduce succinate and added an efflux channel for its secretion. This system promises efficient vinasse decomposition while generating a valuable chemical, balancing environmental sustainability with economic benefit.https://static.igem.org/peertube/streaming-playlists/hls/a113d7d1-4395-4f9c-9847-dcb6d4f2198e/6cd7c9d0-0d68-412f-8e8b-4d897d7b12ef-master.m3u8https://video.igem.org/videos/embed/kTDLCiufQfavqjSQ4xa3x91508052025-11-17T10:49:36.909ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4G8ycz88nPT6txEBtJU6VZhttps://video.igem.org/lazy-static/thumbnails/161174a2-53aa-4641-b147-914388f8a5b8.jpgThailand-RIS: Judging SessionThailand ranked sixth in the world for mismanaged plastic waste, sending over a million tonnes into the oceans each year (Labcom et al., 2024). Microplastics are now found throughout the country’s ecosystems—from marine animals to water, air, and farmland—threatening wildlife, food safety, and human health (Chanpiwat, 2021). The most common culprit is polyethylene terephthalate (PET), making up 37% of poorly managed waste. In 2016, scientists discovered PETase, an enzyme from Ideonella sakaiensis that can break down PET. However, such microbial hosts are inefficient, unsafe, and unsustainable. Therefore, the Thailand‑RIS iGEM 2025 team explored a different approach—producing PETase in plants—of which we present the first successful demonstration. Although stable transformation is still underway, we achieved transient expression of PETase fused with an alpha‑amylase 3S signal peptide in Nicotiana benthamiana, resulting in extracellular secretion. This proof of concept lays the groundwork for scalable, sustainable plant-based strategies against forever-increasing plastic pollution.https://static.igem.org/peertube/streaming-playlists/hls/1de5d2a4-0294-4d4e-8f0e-197617de8d4f/e9fd5981-b700-4c7f-99c7-3f9678b4e39f-master.m3u8https://video.igem.org/videos/embed/4G8ycz88nPT6txEBtJU6VZ1632032025-11-17T10:50:10.637ZYES2025 Judging SessionsNOhttps://video.igem.org/w/azcM2sPmBQe556BUfW1G7phttps://video.igem.org/lazy-static/thumbnails/659e52a8-9454-471b-b19e-399b20b9ec2f.jpgEPFL: Judging SessionWildfires present major global challenges, from CO2 emissions and ecosystem destruction to severe public health impacts. Current firefighting methods also carry significant drawbacks. Pyronix offers a new approach, harnessing synthetic biology to create a more sustainable solution. We engineered a hydrogel-based fire retardant assembled from components produced by microorganisms. The gel structure is composed of cellulose and chitosan. Silica nanoparticles and a fire-retardant protein are embedded in the gel to improve its fire resistance. To deploy the hydrogel, we developed an artificial intelligence equipped drone for safe and automated firefighting, supporting life-saving decisions made by the operators. We engineered yeast strains for enhanced chitosan production, bacterial cells building up silica nanoparticles, and expression systems to produce fire retardant proteins. We assembled the components into a gel-like structure to study its fire-retardant properties. Pyronix provides a solid foundation for developing sustainable firefighting methods from production to deployment.https://static.igem.org/peertube/streaming-playlists/hls/4d850cbc-7551-4499-bb00-aecf46ef98b3/3b244eb5-29b6-4885-8fcc-8aac352a579d-master.m3u8https://video.igem.org/videos/embed/azcM2sPmBQe556BUfW1G7p15740322025-11-17T10:51:53.165ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ez3o6WUFjT6hA4rdBzk3YShttps://video.igem.org/lazy-static/thumbnails/905e226d-a6b5-430a-a97d-6b7151b419f2.jpgOUC-China: Judging SessionIn response to growing climate concerns, biological CO2 capture and utilization technologies have attracted significant attention. Beyond direct CO2 fixation, the biological assimilation of the liquid one-carbon compounds, such as methanol, offers a promising alternative route for converting CO2 into value-added products. Aureobasidium melanogenum, a kind of poly-extremotolerant yeast-like fungus, exhibits remarkable potential for producing diverse bioproducts. Here, we established a CRISPR‑Cas9 gene‑editing system for A. melanogenum and elucidated the mechanisms underlying its methanol metabolism. By reprogramming key metabolic pathways, we constructed an engineered strain capable of synthesizing glucose from methanol. Furthermore, to optimize the cultivation of A. melanogenum, we developed a real-time methanol monitoring and automatic feeding device based on a gas-liquid exchange model, enabling convenient and accurate methanol concentration measurement. This study provides a foundational framework for leveraging A. melanogenumin the bioconversion of C1 compounds toward chemical production, highlighting its potential for sustainable carbon utilization.https://static.igem.org/peertube/streaming-playlists/hls/6de3d07b-4c0c-440a-92c7-16a7f79f1c92/12fd932d-92ed-4743-842a-58a40c000826-master.m3u8https://video.igem.org/videos/embed/ez3o6WUFjT6hA4rdBzk3YS1542032025-11-17T11:05:51.741ZYES2025 Judging SessionsNOhttps://video.igem.org/w/uochyn1zez7Hdozp2ZmDkbhttps://video.igem.org/lazy-static/thumbnails/8a920daa-a1d1-42ef-890a-c23b413e77a1.jpgKCIS-Xiugang-Taipei: Judging SessionGreenhouse gas emission is a major factor driving climate change. Considering the limitations of conventional mitigation approaches, our team proposed a synthetic biology approach by genetically modifying cyanobacteria Synechococcus elongatus PCC 7942 to enhance CO2 fixation efficiency. Our strategy involves overexpressing the cmpAB and CD fusion genes containing a light-sensitive promoter to increase the amount of bicarbonate transporter 1 (BCT1) within the cyanobacterial carbon concentrating mechanism (CCM). Ultimately, we aim to increase inorganic carbon uptake and saturate RuBisCO’s CO2 binding sites, facilitating photosynthetic CO2 sequestration. Coupling protein modeling and functional assays performed on wild-type cyanobacteria to obtain a dry lab model quantifying the cyanobacterial carbon intake, we envision integrating the engineered cyanobacteria into a carbon fixation photobioreactor. In addition, besides evaluating the scalability and sustainability of our hardware from a scientific and economic perspective, we also extended our outreach into the local and global community by educating about synthetic biology. https://static.igem.org/peertube/streaming-playlists/hls/e5d93349-d346-4403-b4c9-88a70733d01c/7c67aeb7-9651-460e-b3f0-d3cd2149561f-master.m3u8https://video.igem.org/videos/embed/uochyn1zez7Hdozp2ZmDkb1462032025-11-17T11:04:45.546ZYES2025 Judging SessionsNOhttps://video.igem.org/w/2q5Kqa15cxPkfXJFewZCbRhttps://video.igem.org/lazy-static/thumbnails/382bd977-7298-46d4-b03a-9e99b2600d41.jpgMSP-Maastricht: Judging SessionHeat exchanger biofouling drives global energy usage and greenhouse-gas emissions. Found in essential infrastructure, heat exchangers contain thermally conductive copper plates prone to biofilm formation, which reduces thermal conductivity by up to 98%, increasing energy consumption. Our solution entails coating copper plates with modified spider silk proteins, produced in E. coli, which maintain plate conductivity and repel bacterial adhesion through their nanostructure. Crystalline β-sheets, flagged by amorphous terminal domains, confer high tensile strength and thermal conductivity to spidroins. β-sheets were modified to maximise thermal conductivity by increasing size. Terminal domains were modified for copper adhesion through addition of cysteine residues. Protein expression was confirmed with fluorescence imaging, and tested by mass determination and sequencing via LC-MS. Copper adhesion and resulting nanostructure were tested with SEM imaging and ATR-FTIR analysis. This research demonstrates spidroin potential beyond biomedical contexts, providing a sustainable, energy-efficient coating contributing to a cleaner climate and sustainable economy.https://static.igem.org/peertube/streaming-playlists/hls/0b75ea61-167f-43c4-a25c-f9cad734f32d/9b6c3360-1de4-4dd2-b185-c196899a4e6b-master.m3u8https://video.igem.org/videos/embed/2q5Kqa15cxPkfXJFewZCbR1547092025-11-17T11:12:40.422ZYES2025 Judging SessionsNOhttps://video.igem.org/w/sG7rHzRDwaH2cthF7TQQyPhttps://video.igem.org/lazy-static/thumbnails/86c503f7-5fb3-4b01-909c-cee1096a127c.jpgUSherbrooke: Judging SessionThe iGEM UdeS 2025 project aims to integrate a microbial fuel cell into a hydroponic system using Geobacter sulfurreducens, an electroactive bacterium capable of converting organic waste into electricity. This innovative system enables the simultaneous production of green energy and sustainable crops. Addressing today’s major challenges in energy transition and food autonomy, it offers a local solution for agricultural greenhouses while also holding global potential for isolated or developing communities seeking resilient and eco-friendly technologies.https://static.igem.org/peertube/streaming-playlists/hls/d82753ac-0423-46e7-ab5a-8c7f5d7ff25f/e2f44e8c-9286-4470-8bb1-a40c2f2a5ac0-master.m3u8https://video.igem.org/videos/embed/sG7rHzRDwaH2cthF7TQQyP1596032025-11-17T11:13:54.077ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rjn2FSHar4HLK3EoRSgVXEhttps://video.igem.org/lazy-static/thumbnails/1c48be28-facd-4f60-9007-5d416ea2efa5.jpgUESTC-China: Judging SessionThe UESTC-China team presents RE-PEAt, a platform that closes the PET loop by integrating enzymatic depolymerization with value-added biosynthesis. We synergistically hydrolyze PET into ethylene glycol (EG) and terephthalic acid (TPA) using magnetically immobilized PETase and Tfca. Through bioinformatics and synthetic biology, we engineered E. coli to consume EG as its sole carbon source, alleviating its competitive inhibition on PET hydrolases. Downstream, RE-PEAt converts EG into biodegradable polyesteramide and upgrades TPA into high-value p-coumaric acid, creating sustainable product streams. Furthermore, a colorimetric biosensor was constructed to monitor EG concentrations in real time, providing reliable guidance for both PET hydrolysis and EG conversion. By combining reusable biocatalysts with microbial upgrading, RE-PEAt offers an integrated framework for PET upcycling—from depolymerization to material and chemical regeneration.https://static.igem.org/peertube/streaming-playlists/hls/cd04d062-49a9-418f-89fe-403bb6aefea8/1b9a19e3-b1d9-4a6b-99b4-3be49552a8a1-master.m3u8https://video.igem.org/videos/embed/rjn2FSHar4HLK3EoRSgVXE1191062025-11-17T11:12:16.973ZYES2025 Judging SessionsNOhttps://video.igem.org/w/u1GDfEfzarkVWUGVT3J4hChttps://video.igem.org/lazy-static/thumbnails/213f1b22-41c6-4941-8c29-7bfa896fb2c0.jpgABOA: Judging SessionForensic science is a field that lacks reliable methods for determining the age of bloodstains, a key factor in reconstructing timelines for crimes. To address this issue, in our project we are developing an innovative, on-site forensic investigation tool – VeriFied – that allows crime scene investigators to quickly and reliably assess the age of bloodstains. The method is based on an enzyme fragment complementation assay that produces a bioluminescence signal. The signal intensity correlates with the levels of oxidized albumin that increase over time as bloodstains are exposed to air. Our aim is to introduce a scientifically robust, quantitative method that reduces reliance on individual interpretation and improves the accuracy of investigation done at a crime scene. This enables criminal investigators to establish more precise timelines and identify relevant bloodstains to the case, guiding the investigation with a scientific basis and solving crimes that would have previously gone unsolved.https://static.igem.org/peertube/streaming-playlists/hls/e2d8edde-bf21-4de0-b81b-33c9ae089a00/bd6360f0-54c4-4a8d-9440-fd7af8f4c352-master.m3u8https://video.igem.org/videos/embed/u1GDfEfzarkVWUGVT3J4hC1503002025-11-17T11:14:49.869ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tqSrDumvsFExgGKD6DxftBhttps://video.igem.org/lazy-static/thumbnails/3c4a3169-81b6-4913-98a1-9e7fd45e8f94.jpgSubCat-China: Judging SessionChitinases, which catalyze the degradation of chitin, have the ability to degrade fungal cell walls and insect exoskeletons and produce N-acetylglucosamine oligomers or monomers. Therefore, they play an important role. In this project, we screened three chitinases and chitin deacetylases from microbial sources. We then constructed a genetic system expressing chitinases by recombining the in vitro synthesized genes into plasmids and expressing them in Escherichia coli. By testing chitin expression and enzyme activity, as well as the optimal reaction conditions for enzyme activity, we optimized the constructed E. coli genetic system and adjusted the expression conditions to increase chitinase production and activity. By degrading these chitin wastes, chitin can be recovered into valuable products such as amino acids, calcium lactate, and high-purity chitin, thereby improving the utilization of biomass energy. Furthermore, we combined chitin exonucleases or endonucleases with chitin deacetylases to explore the synergistic effect of enzymes on chitin degradation.https://static.igem.org/peertube/streaming-playlists/hls/de1fae2e-7bd1-4f90-9efb-9f047e0e4d41/34a2c442-96de-48a8-b53b-e2854b108020-master.m3u8https://video.igem.org/videos/embed/tqSrDumvsFExgGKD6DxftB1525022025-11-17T11:15:51.186ZYES2025 Judging SessionsNOhttps://video.igem.org/w/5bYUA7znQYpvMyqgVgmtN3https://video.igem.org/lazy-static/thumbnails/875fdeba-99a3-408d-b0b8-6a14b6bb26a2.jpgSZU-China: Judging SessionAs the world's largest citrus producer, China contributes one-quarter of global citrus output, yet faces severe threats from the concealed brown citrus aphid. To address this, we present APHiGO—an RNAi-based platform for sustainable aphid control, integrating smart monitoring with precise molecular intervention. APHiGO’s early-warning module uses engineered Bacillus subtilis to detect honeydew and emit volatile signals, monitored via IoT sensors. Upon detection, RNAi molecules targeting vital aphid genes are delivered via trunk injection. Packaged in engineered virus-like particles, these molecules are efficiently ingested, silencing key genes and impeding development. For localized outbreaks, modified Metarhizium fungi deliver dsRNA externally and internally, enhancing lethality and delaying resistance. By combining biosensing, RNAi targeting, and biocontrol, APHiGO transitions pest management from chemical reliance to intelligent, sustainable precision agriculture.https://static.igem.org/peertube/streaming-playlists/hls/21ed0ff5-33a5-4c10-b949-f330d8ae6e2a/d072421d-f8f3-4f9b-aa33-64464e67b542-master.m3u8https://video.igem.org/videos/embed/5bYUA7znQYpvMyqgVgmtN315110112025-11-17T11:15:35.553ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8dcn3NXz1pkAy6Vit15FwZhttps://video.igem.org/lazy-static/thumbnails/8e82f313-f8cd-44b3-b45a-4aa367403bdb.jpgNJU-China: Judging SessionIn the ancient tale of Babel, a unified language shattered into chaos, mirroring DNA's evolutionary fragmentation across trillions of species. This "genetic Babel" hinders discovering Biosynthetic Gene Clusters (BGCs), vast reservoirs of untapped potential hidden in microbes. NJU-China 2025 defies this curse by rebuilding Babel through two towers: the Genetic Tower (BioSHINAR) and the Cognition Tower (Education Space). BioSHINAR leverages AI for a deeper understanding of DNA across three modules—NIMROD for BGC detection, ORACLE for functional prediction, and PENTECOSTA for cluster integration. Validated via DBTL cycles, it excels in mining terpenoid BGCs that elude traditional benchmarks, enabling the discovery of previously unrecognized secondary metabolites. We've completed a robust business plan, with positive company feedback highlighting commercial promise. Complementing this, Education Space enables designing education programs and exchanges to popularize synthetic biology. Through these innovations, we have successfully rebuilt the Tower of Babel of life, unleashing biosynthetic treasures.https://static.igem.org/peertube/streaming-playlists/hls/3a63e603-fe24-4306-9802-905c57f4c3c1/cc35eede-0e17-4a88-b70a-260779eb62a7-master.m3u8https://video.igem.org/videos/embed/8dcn3NXz1pkAy6Vit15FwZ1477082025-11-17T11:18:36.086ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6ESav8NM6rUA8j8CgwETXkhttps://video.igem.org/lazy-static/thumbnails/91b2d30d-c3ce-4311-a5a5-c32b4b3e0ad3.jpgAIS-China: Judging SessionBiofouling—the unwanted accumulation of marine organisms on ship hulls—reduces fuel efficiency, increases CO₂ emissions, and accelerates corrosion. Conventional antifouling paints, mainly copper- or organotin-based, release persistent toxins into seawater, harming marine ecosystems. HullGuard, developed by AIS-China 2025, provides a sustainable biological alternative through microbial biosynthesis of Zosteric Acid (ZA), a natural, non-toxic antifouling compound. Using metabolic engineering, enzyme optimization, and fusion-protein design, we enhanced the catalytic efficiency of key enzymes (TAL and SULT1A1) to boost ZA yield. Rationally engineered mutants and flexible linkers led to a notable improvement over the wild type. Through field research, industrial collaboration, and policy engagement, we ensured environmental feasibility and industrial scalability. HullGuard showcases how synthetic biology can replace toxic marine coatings, advancing sustainable industry and cleaner oceans.https://static.igem.org/peertube/streaming-playlists/hls/2deadf01-c0f6-4ffb-a2f1-f43677d6c365/d9d69049-379f-4d94-aabb-47567d110810-master.m3u8https://video.igem.org/videos/embed/6ESav8NM6rUA8j8CgwETXk14260212025-11-17T11:18:51.145ZYES2025 Judging SessionsNOhttps://video.igem.org/w/v4wWSGYAUGD99FxRctaUzahttps://video.igem.org/lazy-static/thumbnails/d3d29a90-9a2e-433f-946b-055bd8d7a40e.jpgSYPHU-CHINA: Judging SessionAdvanced hepatocellular carcinoma (HCC) with extrahepatic metastasis has a poor prognosis and limited treatment options. This study evaluated All-trans retinoic acid (ATRA) combined with FOLFOX4 chemotherapy in a nationwide, randomized, double-blind, placebo-controlled trial. Prior to the clinical trial, AIVC (Artificial Intelligence Virtual Cell) modeling predicted that ATRA would induce differentiation of tumor-initiating cells (TICs) and reverse chemoresistance. The ATRA+FOLFOX4 cohort showed significantly improved median overall survival (16.2 vs. 10.7 months) and progression-free survival (7.1 vs. 4.2 months) compared to the placebo arm. Experimental validation confirmed that ATRA drives TIC differentiation, remodels the immunosuppressive tumor microenvironment by repolarizing M2 macrophages to an M1 phenotype, and inhibits PI3K/AKT signaling. This study establishes ATRA+FOLFOX4 as a novel, effective, and safe first-line regimen for advanced HCC, with its mechanism rationally guided by initial AIVC predictions.https://static.igem.org/peertube/streaming-playlists/hls/eb5752db-c9ca-4387-86d3-a43978d0c38b/33785eac-0788-49ea-9132-1300ff783263-master.m3u8https://video.igem.org/videos/embed/v4wWSGYAUGD99FxRctaUza1566022025-11-17T11:19:32.911ZYES2025 Judging SessionsNOhttps://video.igem.org/w/r2mB19SaUij6dPCXYmsM7rhttps://video.igem.org/lazy-static/thumbnails/e730d41c-f9d6-4f2f-b2ab-cae7503cb7cd.jpgCCA-San-Diego: Judging SessionParkinson’s Disease (PD) is a progressive neurodegenerative disorder characterized by dopaminergic neuron loss and microglial-driven inflammation. Current treatments only alleviate symptoms without halting disease progression. To address this, we engineered CHO cells to secrete anti-inflammatory proteins (IL-1RA, IFNγR-Fc, and TLR4-Fc) that modulate microglial activation and protect neurons. Using a Tet-On 3G system, we achieved precise, doxycycline-inducible control of therapeutic protein expression. Conditioned media from transfected CHO cells improved BV2 microglial survival under rotenone-induced oxidative stress, with TLR4-Fc showing the strongest neuroprotective effect. This system demonstrates a controllable mammalian cell-based platform for adaptive, anti-inflammatory therapeutics in neurodegenerative disease.https://static.igem.org/peertube/streaming-playlists/hls/caa4e85a-09cd-4eab-93be-babd094545d9/8d719dd2-3377-4f7e-a7c7-6679727fba1b-master.m3u8https://video.igem.org/videos/embed/r2mB19SaUij6dPCXYmsM7r1512032025-11-17T11:21:04.052ZYES2025 Judging SessionsNOhttps://video.igem.org/w/qXkceQ9fL9QbpU7QxAKtvChttps://video.igem.org/lazy-static/thumbnails/309a1ecf-b147-454e-b1a0-9bc74bbf9b89.jpgIOANNINA: Judging SessionCanker stain represents one of the most devastating threats to forest ecosystems worldwide, affecting all species of the genus Platanus, regardless of their size or age. It is a fungal disease caused by Ceratocystis platani. AMADRYADS is a chitosan-based nanocarrier system that encapsulates a plasmid. The plasmid cassette, delicately designed, contains a toehold-controlled Cas13d gene (a CRISPR/Cas ortholog that targets single-stranded RNA) and a gRNA array targeting two key fungal transcript, the products of the LysM and Res1 genes. With an emphasis on safety, we developed a non-GMO, biodegradable solution that operates on two specificity levels. First, it targets unique sequences found only in the fungus through gRNA modeling. Second, the toehold-controlled Cas13d gene is translated only in the presence of a species-specific toxin, ceratoplatanin (CP). Through these design features, combined with the high collateral activity characteristic of Cas13d, AMADRYADS aims to induce a total transcriptomic collapse of the pathogen.https://static.igem.org/peertube/streaming-playlists/hls/ca151053-2260-4536-bd74-9ad73a1c25ba/f9aa8cc4-f453-4cf7-bb82-b15439757a50-master.m3u8https://video.igem.org/videos/embed/qXkceQ9fL9QbpU7QxAKtvC14930152025-11-17T11:22:33.931ZYES2025 Judging SessionsNOhttps://video.igem.org/w/s7JiPJ8GMCMFJc783dE4odhttps://video.igem.org/lazy-static/thumbnails/c16d8b3c-9b7f-4831-85a9-bf4ba5eaab6f.jpgXJTLU-AI-China: Judging SessionPlastic pollution represents a growing global crisis, while biodegrading enzymes provide a sustainable route to plastic recycling. To accelerate enzyme identification, Plaszyme integrates AI-based models that learn from both biological and chemical representations to predict enzyme–polymer interactions with interpretability and precision. Our framework combines machine learning classifiers and structure-aware dual-tower neural networks, enabling multi-level prediction from amino acid sequences to 3D enzyme–polymer compatibility. A lightweight Web App offers browser-based batch prediction, visualization, and interpretability without local setup. In parallel, we curated and released PlaszymeDB, an open-access database compiling verified enzyme–plastic pairs, sequences, structures, and physicochemical descriptors under FAIR principles. Through continued development and open dissemination via iGEM and the Web App, Plaszyme establishes a unified resource for data-driven exploration of plastic biodegradation and sustainable material recycling.https://static.igem.org/peertube/streaming-playlists/hls/d37e23fc-a9df-4cce-81a6-f661b292b424/bca9993a-8c8d-4260-aab4-60caa2f4c30c-master.m3u8https://video.igem.org/videos/embed/s7JiPJ8GMCMFJc783dE4od1535012025-11-17T11:23:24.375ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vxrv32VG3uPZhH76KgvrZThttps://video.igem.org/lazy-static/thumbnails/c49b59c6-102c-4c44-ae98-5e7a7768286c.jpgBNUZH-China: Judging SessioniRIS is a living ode to Van Gogh's Irises—where synthetic biology becomes a brushstroke, and engineered E.coli bloom in chromatic light. Guided by refined RGB-sensing circuits, these microscopic artists synthesize 6,6'-dibromoindigo, 4,4'-dinitroindigo and indigo, under precise red/green/blue illumination, painting not merely pigments, but a symphony of co-creation with life. Beyond its aesthetic beauty, iRIS bridges synthetic biology and aesthetic education, transforming laboratories into studios where genes and colors compose together. By lowering the threshold of art-making through living systems, we seek to reimagine bio-art as a democratic form of creativity, accessible to diverse communities. Our project thus highlights both the technical feasibility of programmable pigments and the cultural value of engaging the public in a dialogue between life sciences and the arts.https://static.igem.org/peertube/streaming-playlists/hls/ef3ccb16-b9ce-4c47-8cee-903aacb65539/95f5a7ad-b269-4273-b3ce-c5164647d818-master.m3u8https://video.igem.org/videos/embed/vxrv32VG3uPZhH76KgvrZT15000102025-11-17T11:25:53.641ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rMyHTAStaCaSvLTR9bDWoQhttps://video.igem.org/lazy-static/thumbnails/8489f4ac-4671-41f6-922b-b46a73530554.jpgSubCat-United: Judging SessionWith the exacerbation of environmental pollution and UV radiation, oxidative stress has become a major contributor to skin aging. The hierarchical antioxidant system comprising superoxide dismutase (SOD) and catalase (CAT) operates synergistically: SOD converts superoxide anions into hydrogen peroxide, which CAT then decomposes into water and oxygen. This system demonstrates superior stability and efficiency compared to single antioxidants like vitamin C or E. In this study, recombinant SOD and CAT were produced in Escherichia coli, purified, and their activities validated. Through in vitro assays including superoxide anion and ABTS⁺ radical scavenging, the optimal synergistic ratio of SOD to CAT was determined. The effects of temperature and pH on enzyme stability were evaluated, offering a promising strategy for developing advanced anti-aging cosmetics.https://static.igem.org/peertube/streaming-playlists/hls/d0d11a19-0113-4e89-b936-9f7141b339ec/a9d960eb-5b9a-4a60-a153-742ff8132398-master.m3u8https://video.igem.org/videos/embed/rMyHTAStaCaSvLTR9bDWoQ1499002025-11-17T11:24:12.627ZYES2025 Judging SessionsNOhttps://video.igem.org/w/ngPDXg8GrqLb6uVDWMT5DPhttps://video.igem.org/lazy-static/thumbnails/0c5b0551-238d-41b1-b593-c81d593b0748.jpgHongKong-HS: Judging SessionSignificance Colorectal cancer (CRC) is one of the most ubiquitous types of cancer in Hong Kong, with approximately 10,000 new cases diagnosed annually. Early detection can significantly improve prognosis, with successful treatment rates exceeding 90%. However, the current mainstream screening methods, such as colonoscopy, FOBT, and FIT, have their limitations of being invasive and inconvenient. Project Mechanics Our project aims to create a tool that detects CRC in its early stages. Our ColoTrace kit detects overexpressed microRNAs (miR) of CRC in the faecal samples, and create coloured proteins that indicate a positive detection. Engineering and Results Six toehold switches that detect miR-92a-3p and miR-135b-5p are designed, and one of the ligated toehold-plasmids was successfully cloned in E. coli, and two of the toehold-plasmids showed strong expression when triggered by the target microRNA. https://static.igem.org/peertube/streaming-playlists/hls/ac456fbb-487a-416e-83a8-740700008869/55f02e06-5642-4c6e-b8f9-3699f113251e-master.m3u8https://video.igem.org/videos/embed/ngPDXg8GrqLb6uVDWMT5DP15240162025-11-17T11:26:27.221ZYES2025 Judging SessionsNOhttps://video.igem.org/w/eTK6CVf8Be4Yj8y4TPuvU5https://video.igem.org/lazy-static/thumbnails/7f10cfa4-4fb5-453f-a2ff-d67c65e185b2.jpgBarcelona-UIC: Judging SessionAmyotrophic Lateral Sclerosis (ALS) remains one of the most urgent challenges in neurology, with no curative treatment and an average diagnostic delay of <12 months that severely limits therapeutic opportunities. ALSense aims to change this paradigm through a synthetic biology–based biosensor capable of detecting ALS-specific biomarkers from a small blood sample. The system combines neurofilaments, which reflect axonal injury, with cryptic peptides derived from TDP-43 dysfunction, a molecular hallmark of ALS. This dual-biomarker strategy provides a rapid, minimally invasive, and affordable diagnostic tool that can support early detection—potentially even before symptom onset. Beyond diagnosis, ALSense enables disease monitoring, accelerates clinical trial enrollment, and reduces the economic burden of late-stage care. By uniting innovation, accessibility, and clinical need, ALSense reimagines ALS diagnosis as a precise and scalable solution with potential expansion to other neurodegenerative disease. ALSense seeks to give patients and families what medicine still cannot: more time, options, and hope.https://static.igem.org/peertube/streaming-playlists/hls/70804b5f-dd48-4169-8d69-6bf2d65cdfd0/91d651fa-296f-4f15-9dcf-c0cff5cc2234-master.m3u8https://video.igem.org/videos/embed/eTK6CVf8Be4Yj8y4TPuvU51348062025-11-17T11:25:30.920ZYES2025 Judging SessionsNOhttps://video.igem.org/w/3bckcWtydhmSXGPSRn1rYXhttps://video.igem.org/lazy-static/thumbnails/9664baff-3c01-4f4b-bbb4-1a35d200b78a.jpgMcMaster-Canada: Judging SessionGlobally, 15% of all kidney transplants face acute rejection, often before symptoms are noticeable. Contemporary detection methods are often done too late and face tradeoffs between invasiveness, accuracy, portability, and cost-effectiveness. We present REACT, a portable and highly sensitive point of care diagnostic for the early-onset detection of kidney rejection. REACT senses two known biomarkers of kidney distress, NGAL and CXCL-9, and uses Rolling Circle Amplification to boost signal output. A G4 DNAzyme functionalized on a reduced Graphene Oxide surface coupled with paper microfluidics allows for a multiplexed colorimetric detection, facilitated by our smartphone app to quantify and interpret the readout. Given the portable nature of REACT, users can use it outside of a hospital setting, allowing for early at-home detection of kidney rejection. This shortens the length of post-transplant hospital stay and decreases the risk of complications resulting from an untreated rejection. https://static.igem.org/peertube/streaming-playlists/hls/119eb2b5-62d6-4fe6-aee6-a7cac81c175b/8a5869ca-9eca-4f8b-8a01-b0101a9a67ff-master.m3u8https://video.igem.org/videos/embed/3bckcWtydhmSXGPSRn1rYX16520232025-11-17T11:30:00.418ZYES2025 Judging SessionsNOhttps://video.igem.org/w/vBTrGTnhHxL1EBTBwUUJcehttps://video.igem.org/lazy-static/thumbnails/82177d28-3164-4aab-8e5a-bbbc47b76fa6.jpgGU-Frankfurt: Judging SessionFungal pathogens pose a major threat to agriculture, causing significant economic losses and straining global food systems. Climate change worsens these challenges by creating warmer, more humid conditions that favor fungal infections. Conventional fungicides often harm beneficial organisms, disrupt ecosystems, and drive pathogen resistance, threatening long-term food security. We propose a more precise and sustainable alternative. Using a modular sensor system with a genetic AND-gate, our engineered bacteria detect pathogen-specific signals tied to physiology and secretome, releasing antimicrobial peptides (AMPs) only when needed. This ensures targeted action while minimizing off-target effects. SPROUT is a scalable, precision-based platform for next-generation plant protection. Its modular design allows easy adaptation to diverse crops and pathogens, enabling efficient, on-demand AMP release. By combining specificity, adaptability, and sustainability, SPROUT offers a practical and innovative approach to strengthening agricultural resilience against fungal diseases.https://static.igem.org/peertube/streaming-playlists/hls/efdbc18e-8529-4ac4-b5f7-271b9fbbabd3/e953a48e-7535-4312-b9a0-842189ca5d6b-master.m3u8https://video.igem.org/videos/embed/vBTrGTnhHxL1EBTBwUUJce1510082025-11-17T11:29:03.394ZYES2025 Judging SessionsNOhttps://video.igem.org/w/qc9ru56v8Vb3Rk7QrzkGN7https://video.igem.org/lazy-static/thumbnails/8ff0e762-c195-4b67-b86e-2a0796b7b26a.jpgBYU-Provo: Judging SessionThe majority of miscarriages, such as those resulting from genetic abnormalities in the miscarried fetus, are explainable. But in a significant number of cases, even scientists don’t have all the answers to why miscarriage happens - partially due to stigma that drives women into silence and inhibits research. Progesterone, a female sex hormone whose levels exhibit within-day variability, is correlated with miscarriages, but no technical platform exists to monitor these levels in real time. We aspire to illuminate early pregnancy and miscarriage by developing such a platform using synthetic biology – specifically, impedimetric aptamers. We anticipate that this platform will expand women’s health research, empowering women with better health tools and more opportunities for self-advocacy in early pregnancy. We validated our chosen bio-impedimetric aptamer system beyond the extent of existing literature. We developed hardware, human practices, and a business plan to minimize technical and market risk and maximize ethical impact. https://static.igem.org/peertube/streaming-playlists/hls/c3e9b5d3-b73c-4289-9127-9295612bf4ba/ed5152c9-a4b8-4165-8d25-b9a6303f0ae1-master.m3u8https://video.igem.org/videos/embed/qc9ru56v8Vb3Rk7QrzkGN71284022025-11-17T11:28:33.379ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8n65JRxWVQ8qC1fANW2Agqhttps://video.igem.org/lazy-static/thumbnails/8b3d5af3-7253-48a2-adce-96a3c9802b67.jpgRio-UFRJ-Brazil: Judging SessionDengue, Zika and chikungunya are serious diseases that are spreading worldwide. Although they are currently most prominent in tropical countries, outside travelers can get back home with the disease. Diagnosis is still challenging due to the genetic similarity among Zika (ZIKV), Dengue (DENV), and Chikungunya (CHKV), which cause similar symptoms (fever, muscle pain), and current serological assays are non-specific, significantly hindering proper patient treatment and effective epidemiological control. In this project, by utilizing synthetic biology, we will eliminate the non-specific interactions that cause cross-reactivity in current serological tests. The design of DiagSyn integrates bioinformatics-driven epitope selection with rational linker design, together with the use of structural biology and molecular dynamics tools, to generate diagnostic antigens that accurately reflect the circulating strains while excluding conserved cross-reactive sequences, enabling highly specific detection. https://static.igem.org/peertube/streaming-playlists/hls/3ba1b8b4-5537-4aad-a0af-619d8c1b080e/df67be35-c1c0-491b-9bce-8e42053414ef-master.m3u8https://video.igem.org/videos/embed/8n65JRxWVQ8qC1fANW2Agq1337012025-11-17T11:30:31.719ZYES2025 Judging SessionsNOhttps://video.igem.org/w/pWbdt1FEqTfMb4kaJpRpx2https://video.igem.org/lazy-static/thumbnails/44c75f66-9c31-485f-99f4-19f829b8683a.jpgCJUH-JLU-China: Judging SessionAdipocytes can be transformed into cancer-associated adipocytes (CAAs) by cytokines from cancer cells. As CAAs demonstrate distinct gene expression pattern, we aimed to engineer adipocytes that could report such pattern. Systematic analysis revealed that the optimal combination to identify CAAs is PLOD2 and LIF, which could be induced by PAI-1 and CXCL8 respectively. We designed a RADAR sensor that targets the transcripts of PLOD2 and LIF simultaneously and delivered this sensor into differentiated adipocytes. These engineered adipocytes responded to the combined stimulation of PAI-1 and CXCL8 only. Most importantly, these engineered adipocytes responded to the treatment of the conditioned medium from breast cancer cells, revealing the potential of these adipocytes to respond to actual cancer microenvironment. We chose Gaussia luciferase (Gluc), an enzyme to generate luminescence, as output reporter. As Gluc could be secreted into urine, it offers a convenient way to report the results of in vivo cancer monitoring.https://static.igem.org/peertube/streaming-playlists/hls/c1d2a5de-d9fc-49e1-ac36-cb0eb2464a5b/726157ed-0263-4fcc-9ed1-e628c7ad0cf6-master.m3u8https://video.igem.org/videos/embed/pWbdt1FEqTfMb4kaJpRpx215550142025-11-17T11:32:44.229ZYES2025 Judging SessionsNOhttps://video.igem.org/w/tz127VmzwEqfVw2Q31WGgMhttps://video.igem.org/lazy-static/thumbnails/e1c41751-6ad9-4df1-9d51-895952b1c32d.jpgNU-Kazakhstan: Judging SessionLUCID is a two-component diagnostic tool for the early detection of non-small cell lung cancer (NSCLC), consisting of biosensor - OncoSense and AI model - Cancerna. OncoSense is a optical fiber biosensor for the detection of biomarkers AGR2 and CEA elevated in patients with NSCLC at early stages. Optical fiber base allows for the immobilization of binding ligands, as antibodies or aptamers. Cheap cost of fabrication and rapid detection time make OncoSense promising novel tool for the cancer detection. Cancerna is an AI assistant tool for the analysis of computer tomography (CT) scans. Analyzing CT scans as the 3D image via Lung-RADS implemented classification, Cancerna becomes the everyday tool for the radiologists. Additionally, to explain and justify its output Fuzzy logic is implemented. LUCID has its impact on diagnostic world not only by presenting a new way of diagnostics, but also by improving the work experience with already established ones. https://static.igem.org/peertube/streaming-playlists/hls/df424cd4-d8ba-459c-b7cf-b2d5a30e4f63/a13be5fc-4bc3-435e-afc4-ac42c7f4218b-master.m3u8https://video.igem.org/videos/embed/tz127VmzwEqfVw2Q31WGgM1468022025-11-17T11:33:57.580ZYES2025 Judging SessionsNOhttps://video.igem.org/w/cVPrio14athhwXE7VCCdpchttps://video.igem.org/lazy-static/thumbnails/32c2db28-6b63-4e4c-8692-1f627d430dc1.jpgAnatolia College-GR: Judging SessionAdolescent anxiety has become a pressing public health concern, with Greece reporting the highest rates of anxiety in the European Union. Current pharmacological and therapeutic approaches are often limited by side effects, accessibility, or cost, highlighting the need for innovative alternatives. We aimed to engineer Saccharomyces cerevisiae to produce linalool and nerolidol, two naturally occurring terpene alcohols, known for their anxiolytic properties. We introduced overexpressed Erg20p and AcNES1 into Saccharomyces cerevisiae BY4741. Following fractional distillation between 78–131 °C the desired compounds were purified and steamed for our essential oil. This exploration provided insights into the feasibility of producing these terpenoids in yeast and highlighted considerations for further optimization. This approach offers a potential foundation for developing cost-effective and sustainable methods to support natural interventions for adolescent anxiety.https://static.igem.org/peertube/streaming-playlists/hls/60982dbd-2370-498e-affd-171f6ce42871/42e68bff-2120-456b-b3c5-bbee0eef77f4-master.m3u8https://video.igem.org/videos/embed/cVPrio14athhwXE7VCCdpc1524072025-11-17T11:34:12.211ZYES2025 Judging SessionsNOhttps://video.igem.org/w/2HnqWqNm64jzxQmhzuQafdhttps://video.igem.org/lazy-static/thumbnails/f4460dde-f61d-45b4-b4d4-d67dd4c9d02a.jpgNAU-CHINA: Judging SessionThe textile industry, as an important sector of fashion industry, is the second largest pollution source in the world. Traditional textile manufacturing processes, which separate fiber production from dyeing, are highly water-intensive and incompatible with the principles of sustainable fashion. To address these challenges, our project developed an integrated system for bacterial cellulose weaving and dyeing using E.coli. We have achieved one-step synthesis of colored bacterial cellulose through temperature regulation. This project aims to overcome the limitations of bacterial cellulose expressed in E.coli and endow it with hydrophobic properties. It provides a solution for the fashion industry that integrates functional aesthetics with environmentally friendly choices.https://static.igem.org/peertube/streaming-playlists/hls/0ddfd704-fbc5-461b-8aff-253d52ef285c/814b2363-d619-4f0f-b738-03b1a4d0d782-master.m3u8https://video.igem.org/videos/embed/2HnqWqNm64jzxQmhzuQafd1495092025-11-17T11:36:08.390ZYES2025 Judging SessionsNOhttps://video.igem.org/w/8duxBpRcKHQNJESXxPr9GYhttps://video.igem.org/lazy-static/thumbnails/58c7230d-e76d-4fa9-9a9c-ccc9e2fc9bf5.jpgHKUST-GZ: Judging SessionLychee deteriorates rapidly after harvest due to high respiration, browning, and fungal decay. Current preservation methods rely on costly cold chains and chemical additives. Our project proposes a sustainable synthetic biology solution integrating melatonin biosynthesis and bioengineered wax coating. Engineered Bacillus subtilis produces melatonin to reduce respiration, delay browning, and enhance lychee immunity. Meanwhile, a LacI–lactose regulatory system promotes fatty acid accumulation, enabling the formation of a protective wax layer that retains moisture and prevents microbial invasion. Complemented by AI-assisted dry-lab tools—BactaGenome for bacterial genome analysis, SynbioMCP for intuitive biological design, and a drone-based spraying system for large-scale application—our approach provides an eco-friendly and intelligent lychee preservation platform that extends shelf life and reduces postharvest waste.https://static.igem.org/peertube/streaming-playlists/hls/3a6e7cc2-c48f-43e1-a719-dc68f3043b60/a98517d5-734d-4db9-a12d-175af745abf9-master.m3u8https://video.igem.org/videos/embed/8duxBpRcKHQNJESXxPr9GY1521012025-11-17T11:37:01.263ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rxzmEFmWHJYi7CR2U1cCAxhttps://video.igem.org/lazy-static/thumbnails/aacf8777-cbde-4b8c-9b22-726c9ef40a44.jpgUCS-X: Judging SessionOur project aims to enhance skincare formulations through the utilization of isoenzymes derived from papain, a cysteine protease renowned for its gentle exfoliating and moisturizing properties. Our research focused on identifying papain isoenzymes that exhibit optimal activity across diverse skin types and pH conditions. Ultimately, five cysteine proteases were chosen for their promising suitability in skincare applications: those derived from Abrus precatorius, Actinidia eriantha, Cicer arietinum, Cajanus cajan, and papain itself. These enzymes are expected to act synergistically to enhance the efficacy, stability, and safety of enzymatic skincare products.https://static.igem.org/peertube/streaming-playlists/hls/cedd1476-a97e-416f-9968-6f4fba8231db/5d4ba4e8-63b0-41b7-86d8-adce72e06bec-master.m3u8https://video.igem.org/videos/embed/rxzmEFmWHJYi7CR2U1cCAx1538012025-11-17T11:57:56.567ZYES2025 Judging SessionsNOhttps://video.igem.org/w/mcbR9nVXyYr7ZzXw1ELuWPhttps://video.igem.org/lazy-static/thumbnails/ce0714d1-95b0-460f-b133-78d3b78a533c.jpgDTU-Denmark: Judging SessionFast fashion has accelerated the accumulation of synthetic textile waste, with nylon being among the least recycled fractions. Landfilling and incineration are the current disposal methods, producing microplastics and emitting greenhouse gases. NomNomNylon proposes a bio-upcycling strategy that couples enzymatic pretreatment with microbial valorisation. To enhance depolymerization, we developed a protein engineering pipeline to increase thermostability and activity while exploring nature’s enzymatic diversity through sequence mining. These variants and homologues were tested in vitro using a cell-free assay on raw nylon. We employed a bioengineered Pseudomonas putida strain to metabolise nylon-derived oligomers and channel carbon flux toward indigoidine, a sustainable alternative to petrochemical indigo. Beyond lab work, we integrated feedback from experts, policymakers, and NGOs, and raised awareness among the public and youth through educational initiatives. We have shown that nylon waste can serve as a valuable feedstock for high-value products, contributing to a greener textile future.https://static.igem.org/peertube/streaming-playlists/hls/a386a3ba-ab1d-4b13-9813-6e2cf0f6b39b/e4d43b68-e015-4afe-8cc0-2dea18e1f334-master.m3u8https://video.igem.org/videos/embed/mcbR9nVXyYr7ZzXw1ELuWP15710132025-11-17T11:59:19.581ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rMeNv1GjxQAZnDaBWNH3dphttps://video.igem.org/lazy-static/thumbnails/d2838e2a-d9cd-4e7f-b75e-c700ed346e04.jpgGEMS-Taiwan: Judging SessionOur project aims to address the recycling challenge of PET in textiles through enzymatic degradation. We engineered the recombinant enzyme Thermobifida fusca cutinase (TfCut2), expressed in Escherichia coli BL21. Guided by rational mutagenesis and machine learning approaches, we engineered and evaluated six TfCut2 variants with the potential for enhanced degradation performance compared to the wildtype. To improve accessibility of the textile substrate, we apply mechanical disintegration and chemical pre-treatment, followed by enzymatic treatment using cellulases for the cotton fraction and TfCut2 variants for PET. Ultimately, the process seeks to degrade blended textiles into the monomer terephthalic acid (TPA), which can then be repolymerized into PET textiles, enabling closed-loop recycling for sustainable management.https://static.igem.org/peertube/streaming-playlists/hls/d0c57117-9e23-4bf4-ab78-67595c01ca5f/4c6b14df-814a-4ddb-89f1-58d9bd11c8d4-master.m3u8https://video.igem.org/videos/embed/rMeNv1GjxQAZnDaBWNH3dp15220212025-11-17T11:58:17.695ZYES2025 Judging SessionsNOhttps://video.igem.org/w/fhp8ZBAwiUAhPG61vzaNbbhttps://video.igem.org/lazy-static/thumbnails/67af5c03-d98d-4b98-8017-c86e0023db35.jpgNIS-Kazakhstan: Judging SessionCosmetics reflect identity, confidence, and culture, but behind their glossy image lies a growing public-health crisis. The $900 billion industry is increasingly flooded with counterfeit products containing toxic ingredients like hydroquinone, a banned skin-lightening agent in the U.S., U.K., and EU. Despite its whitening effect, hydroquinone causes oxidative stress, cytotoxicity, ochronosis, and even cancer risk. Yet in much of Asia and Africa, it remains freely sold in unregulated “brightening” creams, exploiting beauty insecurities and endangering lives. Beyond public health, counterfeit cosmetics cause massive economic losses to legitimate brands. Existing detection methods are expensive and limited to specialized labs. To address this, we developed a HEK293T cell-based biosensor using the Nrf2-ARE pathway to sense oxidative stress and activate an EGFP reporter, producing a visible signal when exposed to hydroquinone. Our biosensor offers a low-cost, portable tool for safer cosmetics to empower consumers and protect global health.https://static.igem.org/peertube/streaming-playlists/hls/73aa19ca-78b5-48e0-9ed3-73a53e215ede/c2afc08b-8d8b-4f14-aa88-fbf9d3df64e7-master.m3u8https://video.igem.org/videos/embed/fhp8ZBAwiUAhPG61vzaNbb1554032025-11-17T11:59:38.487ZYES2025 Judging SessionsNOhttps://video.igem.org/w/voEADibBtRNGreu6Cmffg1https://video.igem.org/lazy-static/thumbnails/ceeeec0c-c828-43d4-ab71-527d6b388d3a.jpgSorbonne University: Judging SessionNereis' project focuses on conserving the marine environment by degrading the pollutant naphthalene, a polycyclic aromatic hydrocarbons (PAHs). We identified salt-tolerant genes encoding proteins that help organisms survive in high sodium environments, as well as a catabolic pathway that uses naphthalene as a carbon source. Our goal is to genetically modify Pseudomonas putida, to be both salt-tolerant and capable of enhanced naphthalene degradation. These modification would allow the bacteria to function effectively in marine conditions. The naphthalene degradation pathway is found in P.putida G7, specifically in the NAH7 plasmid, which encodes the necessary degrading enzymes. Major challenges include adapting P. putida to high sodium concentration and introducing the large NAH7 plasmid. First, we will modified the bacteria with salt tolerant genes and test its tolerance to different sodium concentration. Second, we want to introduce the degrading enzymes in the salt-tolerant strain and assess the effectiveness of naphthalene degradation.https://static.igem.org/peertube/streaming-playlists/hls/ee032ba6-5ac5-4c37-a0e4-27d2ed1a758e/b0385f8d-eb16-463a-b710-e03b2fb125dd-master.m3u8https://video.igem.org/videos/embed/voEADibBtRNGreu6Cmffg11303032025-11-17T11:53:12.546ZYES2025 Judging SessionsNOhttps://video.igem.org/w/2bPikxN77C7FEgsBPRDkm6https://video.igem.org/lazy-static/thumbnails/e540e098-7a88-4fc7-972b-cdd68f6eb006.jpgHangzhou-SDG: Judging SessionAs urban feral cat populations continue to grow, ecological balance, public health, and animal welfare are increasingly threatened. To address this, we designed an oral contraceptive peptide based on a sequence-modified cyclized GnRH antagonist that competitively blocks reproductive hormone signaling without affecting animal health. By optimizing peptide stability through sequence modification and disulfide ring formation, and co-administering with SNAC to enhance gastrointestinal absorption, we enable effective oral delivery. For safe and precise administration, we designed CatWell, an AI-powered smart feeder that provides controlled daily dosing to individual feral cats. Together, this integrated system offers a humane, scalable, and non-surgical solution for feral cat population control.https://static.igem.org/peertube/streaming-playlists/hls/099bb9b0-a615-4c6e-aa9d-f29b30bba131/61342381-c043-4937-9bb8-d91708d53d90-master.m3u8https://video.igem.org/videos/embed/2bPikxN77C7FEgsBPRDkm61560042025-11-17T11:59:00.564ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4rdpgmwyfGnDmeehLHCBZShttps://video.igem.org/lazy-static/thumbnails/45cf4532-513d-4f7b-82b8-1ee64cb24923.jpgMammothEdu-DTD-East: Judging SessionModern society faces a pervasive sleep and mental health crisis, with conventional solutions often being inadequate or accompanied by side effects. Our project, Vesper, harnesses the power of synthetic biology to create a natural, non-habit-forming alternative. We engineered two distinct Saccharomyces cerevisiae strains: one capable of autonomous, gentle bioluminescence through an optimized fungal caffeic acid pathway, and another producing a spectrum of therapeutic terpenoid aromas like linalool and citronellol. These strains are designed to work in synergy within a personal sleep device, the Bio-Pod, delivering multi-sensory therapy. Our human-centered design, informed by extensive human practices, is complemented by a built-in dual-layer suicide switch for robust biocontainment. Vesper offers a holistic approach to wellness, reconnecting users with the restorative power of nature through engineered biology.https://static.igem.org/peertube/streaming-playlists/hls/1bd0a716-a364-4f60-9d04-f9d0ff4bf338/21fcffc5-38a9-459e-86a0-83434a4901c4-master.m3u8https://video.igem.org/videos/embed/4rdpgmwyfGnDmeehLHCBZS1612012025-11-17T12:02:33.310ZYES2025 Judging SessionsNOhttps://video.igem.org/w/6d19NoPEtmZcsFyhBEvnVAhttps://video.igem.org/lazy-static/thumbnails/df0b7e8e-a88d-4fd5-b135-14fe91f0a864.jpgNU Boston: Judging SessionIn order to address the rising enviromental crisis of wildfires we set out to create biological flame retardants. We created complexes consisting of a biological flame retardant, a linker domain and then a cellulose binding domain from the cellulosome of Clostridium Thermocellum. These complexes were then expressed in E.coli before being purified and applied to cotton to test their relative flame retardancy. https://static.igem.org/peertube/streaming-playlists/hls/2a2ab648-63a2-4e30-a684-0e8f3fae2ee0/7dc89c4d-edf7-4615-97b8-8571a32295e7-master.m3u8https://video.igem.org/videos/embed/6d19NoPEtmZcsFyhBEvnVA1521042025-11-17T11:58:38.143ZYES2025 Judging SessionsNOhttps://video.igem.org/w/458Xw8PbfggqbwzFu3ReWbhttps://video.igem.org/lazy-static/thumbnails/a4ba035a-1802-4724-bd86-37cb750ddf71.jpgSUSTechOCEAN: Judging SessionHarmful algal blooms (HABs) pose severe threats to marine ecosystems, aquaculture, and human health. Traditional control methods are often inefficient, environmentally risky, and prone to secondary pollution. To address these challenges, the SUSTechOCEAN team developed an intelligent and controllable HAB mitigation system that integrates artificial intelligence prediction with synthetic biology intervention. Using a deep learning–based OI-SwinUnet model, we predict the risk of HAB occurrence from environmental parameters such as nutrient concentrations, temperature, and dissolved oxygen. When the predicted risk exceeds a defined threshold, engineered Bacillus subtilis expresses Surfactin C14—a biodegradable, low-toxicity biosurfactant with strong algicidal activity—under blue-light induction. Meanwhile, red light activates the expression of the phage-derived YonE protein, which depletes intracellular NAD⁺ and triggers cell death, ensuring biosafety. This system achieves intelligent linkage between “prediction” and “intervention,” providing a sustainable, eco-friendly, and safe synthetic biology solution for marine ecosystem protection.https://static.igem.org/peertube/streaming-playlists/hls/18df4b7d-3a40-40af-8d87-8038b381a8a2/323ae09e-7982-4497-9b3f-19d05ee1ce1a-master.m3u8https://video.igem.org/videos/embed/458Xw8PbfggqbwzFu3ReWb1502032025-11-17T11:57:39.117ZYES2025 Judging SessionsNOhttps://video.igem.org/w/1Cckx8x6B8jsbpX3opedY2https://video.igem.org/lazy-static/thumbnails/428d2058-0356-4d23-9313-6bf31b34202c.jpgBaltimore-BioCrew: Judging SessionBreast cancer incidence is rising, primarily in women under 44. Despite being 10% of breast cancer cases, TNBC, a rare and aggressive form, has a higher rate of death (40% of breast cancer-related deaths) and recurrence (~40% of patients) compared to other breast cancers. The absence of progesterone, estrogen, and HER2 receptors means that traditional therapies are ineffective against TNBC. Patients have the best prognosis if the disease is diagnosed early, so to help detect TNBC recurrence, our team is creating a reusable, efficient, and accessible detector system. Our simple liquid biopsy test has a TNBC patient in remission pricks their finger and apply a droplet of blood to a tube with a simple detection device. In the presence of miRNAs 21 and 155 that are indicative of TNBC, toehold switches allow translation of a fluorescent reporter. Our device will be a significant step forward for at-home diagnostic tools.https://static.igem.org/peertube/streaming-playlists/hls/050dc325-d32f-4153-8fc4-0fe6d0233799/e863895d-dd5c-4e06-9f71-f7969fe481b2-master.m3u8https://video.igem.org/videos/embed/1Cckx8x6B8jsbpX3opedY216160102025-11-17T12:03:18.141ZYES2025 Judging SessionsNOhttps://video.igem.org/w/acFUx7Lp7prdHuKZggHtfGhttps://video.igem.org/lazy-static/thumbnails/832d7ef1-c472-454b-a9c6-bd222913bbe4.jpgHangzhou-BioX: Judging SessionAs more people pursue fitness to improve their health, the lack of scientific training guidance remains common. Without real-time feedback, many unknowingly overtrain, increasing the risk of injury. Lactate—a key marker of fatigue, training intensity, and anaerobic metabolism—is still mainly detected through costly instruments and invasive blood sampling, limiting its everyday use. To solve this, we developed a synthetic biology-based biosensor using engineered E. coli to express lactate oxidase, enabling detection of lactate in sweat through either a visible color change or an electrochemical signal. Our goal is to make scientific, precise training accessible to everyone. Whether for beginners or professional athletes, our sensor provides real-time insights into physical status, supporting smarter workouts and healthier progress.https://static.igem.org/peertube/streaming-playlists/hls/4a8405b1-1fbf-4c14-b6ab-ad0f69669498/a91e5876-b89a-4e7c-aed7-b8944db716c2-master.m3u8https://video.igem.org/videos/embed/acFUx7Lp7prdHuKZggHtfG1648062025-11-17T12:05:23.661ZYES2025 Judging SessionsNOhttps://video.igem.org/w/k8nF2WE5v9BT8bxHPoZn3fhttps://video.igem.org/lazy-static/thumbnails/c918d1b5-93b2-44ba-8408-928b8fb0bfd4.jpgTianjin: Judging SessionCold weather often poses significant challenges to beauty and fashion—from skincare products freezing solid outdoors to concealed door handles becoming stubbornly stuck. Inspired by the freeze-resistance strategies of polar organisms and traditional Chinese culture, the Tianjin team "KUNPENG - The Guardian of Beauty in Cold Conditions" has developed a novel solution. Leveraging synthetic biology and computational modeling, they designed an "Antifreeze Protein-Trehalose Synergistic Defense System." We displayed Antifreeze Protein(AFP) extracellularly via a yeast surface display system. Computational models were then employed to optimize the performance of these proteins and to design novel AFP variants. Through the screening strategy, we identified the trehalose pathway as critical for enhancing yeast frost resistance. Finally, we integrated these elements into a single system, achieving combined intracellular and extracellular frost resistance. The team's ultimate goal is to integrate this system into cosmetic formulations.https://static.igem.org/peertube/streaming-playlists/hls/9ae53287-d5be-411d-bdaa-b31a66dea8de/d6ab39f1-6a4a-4954-b7c1-e4642a7fb553-master.m3u8https://video.igem.org/videos/embed/k8nF2WE5v9BT8bxHPoZn3f1728042025-11-17T12:07:34.780ZYES2025 Judging SessionsNOhttps://video.igem.org/w/e4989emjtDbmC74oqK3Z5mhttps://video.igem.org/lazy-static/thumbnails/3aa4e9f3-cc26-4c5e-acbf-7ec9fa833e18.jpgThe Gravity of Our Challenge: A Journey of ResilienceIn our project, we aimed to enable biological reactions in space's microgravity environment. However, our initial reactor design—which relied on liquid flowing downward to react with gas—completely failed under such conditions. We first overcame this by redesigning the reactor using a multi-layer filler structure inspired by plant trellises. A greater challenge emerged when physical testing became impossible. Although we identified a lab in Macao with microgravity simulation devices, cross-border permits for our engineered bacteria were unattainable in time. Refusing to give up, we pivoted to theoretical modeling and designed ground-based experiments to simulate microgravity diffusion limitations. This experience taught us that overcoming unexpected challenges requires not only scientific creativity, but also relentless determination and adaptability.https://static.igem.org/peertube/streaming-playlists/hls/69b70a3a-30ae-422a-9075-611926f24200/7726182d-cd17-429f-9db9-f94223bd57c2-master.m3u8https://video.igem.org/videos/embed/e4989emjtDbmC74oqK3Z5m517042025-11-17T11:55:35.735ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/5t8VRVm1F2Y7CM2H8WDx4Chttps://video.igem.org/lazy-static/thumbnails/207fdf3b-9f29-46a6-9293-be3f061ea0ef.jpgWhat iGEM Taught Me That Textbooks Never DidA reflective talk about the unexpected lessons from iGEM, teamwork, leadership, risk-taking, handling setbacks, and bridging science with the real world.https://static.igem.org/peertube/streaming-playlists/hls/242e85ca-a4b1-48f3-80b5-356abf010076/7e6dcdbd-d326-46cb-82a4-a2655e79c341-master.m3u8https://video.igem.org/videos/embed/5t8VRVm1F2Y7CM2H8WDx4C542032025-11-17T11:54:45.261ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/e5cBKkCUU5DLWExSLY14DMhttps://video.igem.org/lazy-static/thumbnails/08937317-c1fb-4c8a-8fb7-2e6f68d1393f.jpgOur Journey as an All-Women iGEM TeamStarting an iGEM team from scratch was daunting, and being an all-women team made it uniquely challenging and empowering. None of us had ever run an independent research project before, so we built everything from the ground up. We didn’t start as friends with a shared vision but as five strangers with different majors, schedules, and personalities. This talk shares how we transformed into a high-functioning team capable of designing, executing, and presenting a synthetic biology project under tight deadlines. We’ll recount the moments that shaped our team’s identity, our first successful transfection, our first failed PCR, and the late-night planning sessions that forced us to adapt and grow. We’ll also reflect on how external doubts about our ability became motivation to advocate for ourselves. More than a project, this talk is about friendship and proving that women in STEM can lead ambitious initiatives and succeed.https://static.igem.org/peertube/streaming-playlists/hls/69dcefbd-0c44-4b07-9615-f26b9ea6bafb/55ccdf43-31fd-4942-9ec7-2923ecaabafc-master.m3u8https://video.igem.org/videos/embed/e5cBKkCUU5DLWExSLY14DM427012025-11-17T11:43:41.065ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/7nvFMRrvHX6P7TDSeG4f8xhttps://video.igem.org/lazy-static/thumbnails/fa69b3eb-ab11-4db9-81e3-2473fcfcee7a.jpgBeyond the Visible: “Plaszyme” Plastic Degradation Predication ModelA perplexed student recently asked us how we chose our research topic and overcame challenges in the vast scientific world. We understand this is a common struggle for aspiring researchers, one our team get some views. At this Live Stage Talk, we’ll go beyond simply explaining how we leveraged AI for plastic degradation. Instead, we’ll share a narrative that starts from the very beginning. We’ll show how initial sparks of inspiration were gradually made tangible and integrated into our core research. We’ll also share the untold story behind the scenes: how our team brainstormed, confronted repeated setbacks, and made the critical decisions that shaped our path. We believe these genuine stories of innovation and choice will resonate more deeply than any data, offering tangible inspiration to iGEMers and other researchers navigating their own periods of uncertainty.https://static.igem.org/peertube/streaming-playlists/hls/3397beed-0d8d-474f-93e1-808b39c42bc5/d40943de-dfd5-4e9b-9e38-3d930799611e-master.m3u8https://video.igem.org/videos/embed/7nvFMRrvHX6P7TDSeG4f8x572012025-11-17T11:56:11.863ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/hPoBREradiHq5ASYLN4eaThttps://video.igem.org/lazy-static/thumbnails/fa037558-9482-4911-8e52-a9f6e6c4912e.jpgInnovation Without a Net: Why New Ideas Are Both Exciting and RiskyThis live stage talk highlights the exhilaration and challenges of venturing into uncharted scientific territory. New ideas inspire bold research, yet they often face a lack of bibliography to build upon and the difficulty of designing experiments without established protocols. This absence of a clear roadmap makes innovation both inspiring and precarious, where progress depends on creativity, resilience, and the willingness to embrace uncertainty. The talk will explore how researchers navigate these obstacles, balance risk with opportunity, and push forward despite limited guidance. By reflecting on the excitement and fragility of pioneering work, we invite the audience to see innovation not only as a path to discovery but also as a process that demands courage, persistence, and a readiness to learn from failure.https://static.igem.org/peertube/streaming-playlists/hls/88301d5e-24b2-45a1-89c3-a6388fc9f8e9/442d911f-d744-45d7-9925-9ea2d7f21db7-master.m3u8https://video.igem.org/videos/embed/hPoBREradiHq5ASYLN4eaT455062025-11-17T11:56:45.995ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/2GdcCScKiTeAjPZ6ZKXnTzhttps://video.igem.org/lazy-static/thumbnails/e3db4ee4-db10-455f-9419-9de1a8f1cd21.jpgCollaboration Beyond Disciplines: Growing Together in iGEMOur talk will focus on the collaborative journey of building an iGEM team and navigating the challenges of an interdisciplinary project. Coming from diverse academic backgrounds, we learned how to combine perspectives from biology, computer science, and engineering to address a common goal. Beyond the scientific aspects of our project with Snodgrassella alvi, we would like to share how we managed teamwork, communication, and project organization. We will also discuss the lessons we learned from failures, the strategies that helped us stay motivated, and the importance of community support. Through this talk, we hope to inspire future iGEM teams and contribute to the broader conversation on collaboration, resilience, and creativity in synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/0db66889-fcce-4328-82fc-580d8aec994b/e5578584-cf2e-404c-994e-a5bfb72abf8d-master.m3u8https://video.igem.org/videos/embed/2GdcCScKiTeAjPZ6ZKXnTz551002025-11-17T11:57:22.084ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/62zCittfnsq7g7XhHnHpe8https://video.igem.org/lazy-static/thumbnails/b7e73b32-ccdb-4667-bd09-08d6673f0dd1.jpgChallenges of Synthetic Biology in Latin AmericaIn Latin America, there are certain challenges when working with synthetic biology. In this talk, we will share some of the challenges we experienced this season.https://static.igem.org/peertube/streaming-playlists/hls/28b628e5-d96e-4660-a420-dcf97a92540d/6fb672c2-1e2b-4c72-aa26-b0001ff15a49-master.m3u8https://video.igem.org/videos/embed/62zCittfnsq7g7XhHnHpe8293012025-11-17T11:43:57.801ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/e36UnJvud2WWrv8a1pxPwLhttps://video.igem.org/lazy-static/thumbnails/1d7375c3-acf5-4fca-9ae2-057dadc8ed7e.jpgBFH European Meetup: How to Host a Successful MeetupIn 2024, the universities of Bielefeld, Frankfurt and Hamburg organized an European meetup for iGEM teams. This year, Frankfurt continued this legacy and went one step further, with well over 200 participants. We want to give you a grasp of what it takes to organize and host a meetup and what makes a good iGEM meetup an exceptional one. Meetups are a vital place for iGEM teams to showcase their projects, get input from other teams and experts, as well as forging acquaintances and planning collaborations. The next goal we aim to achieve now is to found an association to consolidate a broad spectrum of meetups in various places and to support future iGEM teams who consider hosting a meetup with the obstacles and tasks that come with such an event. We want to encourage other teams to partake in these opportunities or inspire them to plan their own meetups.https://static.igem.org/peertube/streaming-playlists/hls/6991ed90-1ee9-4620-b87f-b90c037f889c/e66b4526-f7d7-49d1-a76c-1d75ee3e51f8-master.m3u8https://video.igem.org/videos/embed/e36UnJvud2WWrv8a1pxPwL601012025-11-17T12:04:09.380ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/qs7gRBfuarUSvJXSuRKiZGhttps://video.igem.org/lazy-static/thumbnails/ee6abae8-7a68-4134-aae4-e47d28830c0b.jpgTERRAWe want to turn red mud, a hazardous bauxite waste, into a source of rare earth elements (REEs). Using Chlamydomonas reinhardtii engineered with a high-affinity binding protein, our algae capture lanthanides from dilute solutions with low concentrations of the precious materials. The workflow is straightforward: pre-treat the red mud, let algae accumulate REEs, ash, recover. A prototype bioreactor supports easy growth and handling. The goal: pair red-mud cleanup with low-input REE recovery that plugs into classical downstream extraction. Experts told us loud and clear: turning red-mud cleanup into a win is exciting and overdue. We have been fueling that momentum, sparking awareness and enthusiasm in the next generation of students.https://static.igem.org/peertube/streaming-playlists/hls/c600882e-8346-456f-ac55-3ed33e4c9cbe/284c19bf-51b3-4fd6-9097-8c5255e793be-master.m3u8https://video.igem.org/videos/embed/qs7gRBfuarUSvJXSuRKiZG542022025-11-17T12:02:07.387ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/575hiG3Z5nA8W64E78MRWwhttps://video.igem.org/lazy-static/thumbnails/b60e9f04-7056-4809-93c0-b5b196b87808.jpgPhasea: Recombinant Antifungal Peptides Encapsulated in Chitosan Microparticles for Next-Generati...Plant diseases caused by fungi threaten global food security, causing severe yield losses and dependence on chemical fungicides that harm the environment and human health. Anthracnose, caused by Colletotrichum genus, exemplifies this problem. Despite advances, sustainable and precise disease management tools remain limited. Phasea addresses this challenge through a next-generation biofungicide that combines recombinant antifungal peptides with chitosan-based microparticles for controlled, prolonged release. Its formulation integrates the synergistic action of CaLTP1 + PDF1.2 and PvPGIP2, engineered for broad antifungal activity, while biodegradable chitosan ensures protection, stability, and gradual delivery in crops. To optimize formulation, we developed a mathematical model coupling peptide release kinetics with fungal inhibition dynamics, enabling data-driven design and predictive testing. Beyond the lab, Phasea integrates a sustainability-oriented business model targeting distributors and farmers. Together, Phasea unites synthetic biology, human practices, and entrepreneurship to foster safer and more resilient crop protection.https://static.igem.org/peertube/streaming-playlists/hls/213da7d5-0939-4b6a-ae5b-812fbd51f076/3aac7703-5ec0-4364-a68a-f25ba4bdbbcc-master.m3u8https://video.igem.org/videos/embed/575hiG3Z5nA8W64E78MRWw519022025-11-17T12:01:24.361ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/tp3Z2zRsuuSKek7tuLDjP4https://video.igem.org/lazy-static/thumbnails/290344b9-994e-4923-9ed3-cf249b0ce885.jpgTasAnchor:A Whole-Cell Immobilization PlatformAlthough engineered bacteria hold great potential for wastewater remediation, their practical application is constrained by operational challenges such as easy washout, poor stability, and low cell density. To overcome these limitations, we developed TasAnchor, a whole-cell immobilization platform built on the chassis of Bacillus subtilis. By repurposing the endogenous biofilm protein TasA as a genetically engineered molecular anchor, TasAnchor dramatically enhances cellular adhesion and biofilm formation capacity of the engineered host on surfaces such as polystyrene filters.We further engineered TasAnchor into a multifunctional cadmium-management platform capable of the simultaneous monitoring, adsorption, and recovery of Cd²⁺ ions in real-time. For biocontainment, a quorum sensing-activated suicide circuit was integrated to trigger cell death upon accidental release. Central to its design is modularity, allowing for the exchange of adhesive proteins to facilitate flexible adaptation to diverse remediation scenarios, thereby underscoring the platform's versatility and broad application potential.https://static.igem.org/peertube/streaming-playlists/hls/dddeb062-f7eb-4fac-a20c-cd5bf11283f9/de7b2e9b-f241-4a01-9209-e53fb6a49b86-master.m3u8https://video.igem.org/videos/embed/tp3Z2zRsuuSKek7tuLDjP45100192025-11-17T12:01:44.583ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9BfH5mHxdBiS8UDNZNThEnhttps://video.igem.org/lazy-static/thumbnails/ee312e18-7781-44a9-86b3-6c39b9abf2a2.jpgSyn-Sweet TechConfronted with the increasingly severe issues of obesity and metabolic diseases in China, as well as the limitations of traditional artificial/natural sweeteners in terms of safety, tolerance, and functionality, this project aims to employ synthetic biology techniques to construct highly efficient E. coli engineering strains for the expression of α-agarase (AgaE) and endo-inulinase (Inulinase), respectively. By optimizing expression conditions and fermentation processes, the soluble expression of these two enzymes will be achieved efficiently. Subsequently, a green biomanufacturing process will be established for the large-scale production of novel functional sweeteners—agaro-oligosaccharides (AOS) and fructo-oligosaccharides (FOS)—which exhibit both a low glycemic index (GI) and significant prebiotic properties. This technological approach is designed to fundamentally address the health controversies and application challenges associated with existing sweetener products, offering the food industry a safer, more efficient, and cost-effective healthy sweetening solution.https://static.igem.org/peertube/streaming-playlists/hls/45b5349a-0510-4840-9cae-d6915a54e869/c4b69d15-ffd8-420e-ae23-3be3628413ee-master.m3u8https://video.igem.org/videos/embed/9BfH5mHxdBiS8UDNZNThEn593012025-11-17T12:04:35.246ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/9qmwkdGQXn84uNZ2FJZeHwhttps://video.igem.org/lazy-static/thumbnails/a3a98b67-6095-4ab3-a8b4-87d0c6d066b4.jpgCatWell: Oral Peptide Contraceptive System for Humane Feral Cat ControlAs urban feral cat populations continue to grow, ecological balance, public health, and animal welfare are increasingly threatened. To address this, we designed an oral contraceptive peptide based on a sequence-modified cyclized GnRH antagonist that competitively blocks reproductive hormone signaling without affecting animal health. By optimizing peptide stability through sequence modification and disulfide ring formation, and co-administering with SNAC to enhance gastrointestinal absorption, we enable effective oral delivery. For safe and precise administration, we designed CatWell, an AI-powered smart feeder that provides controlled daily dosing to individual feral cats. Together, this integrated system offers a humane, scalable, and non-surgical solution for feral cat population control.https://static.igem.org/peertube/streaming-playlists/hls/442f9b83-cf83-48fa-9883-9066dff30de4/16564918-494c-4086-aa8c-f02af260aee8-master.m3u8https://video.igem.org/videos/embed/9qmwkdGQXn84uNZ2FJZeHw441012025-11-17T12:02:52.754ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eQnzYsbJwDPP1CCr1irnV6https://video.igem.org/lazy-static/thumbnails/268ff1a7-f5a4-4749-b40d-2fca5f39c1b4.jpgGoutBuster: Intestine-Targeted Engineered Bacteria for Purine-Urate Transport & Degradation and H...Gout, driven by hyperuricemia, now affects about 55.8 million people worldwide and is projected to reach 95.8 million by 2050. East Asia bears a disproportionate burden, with a 175.9% increase in cases and 26.4% higher age-standardized prevalence. Current drugs targeting liver/kidney function often cause severe side effects, necessitating safer alternatives. Our project GoutBuster develops an engineered probiotic that modulates intestinal purine-urate metabolism. Biosafety is ensured by deleting the smr resistance gene and assessing gene transferability. Efficacy is enhanced through integration of a high-efficiency urate transporter (UacT) and a secretory uricase, enabling purine absorption blockade, urate transport, and degradation. Support tools include a dynamic dosing model, multilingual voice assistant, public engagement platform (Suprobiotics), and inclusive science communication formats. GoutBuster aligns with WHO goals for safe, accessible non-communicable disease treatments and offers a novel, replicable model for metabolic disease management and probiotic innovation.https://static.igem.org/peertube/streaming-playlists/hls/7007ce65-0335-4b5a-b750-c2f3d8d26a33/0c7bf520-a36f-469c-a52d-6a7fd95c0464-master.m3u8https://video.igem.org/videos/embed/eQnzYsbJwDPP1CCr1irnV63580112025-11-17T12:04:52.163ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/k2iGo55qNhV1L8vS9rzohmhttps://video.igem.org/lazy-static/thumbnails/153e717f-9a60-4ae2-905d-c31e79cf1172.jpgStorytelling as a Science Communication ToolJoin our interactive session and embark on a journey to become a proficient science communicator in the dynamic realm of synthetic biology. Discover the art of storytelling as a potent tool to demystify intricate synbio concepts and captivate diverse audiences. By attending, you’ll gain a deeper appreciation for storytelling’s role in synbio communication and practical storytelling skills applicable to various synbio domains. Elevate your synbio communication game with us.https://static.igem.org/peertube/streaming-playlists/hls/9a0c48b3-9714-4bcd-9f18-5c67173b2784/2f29c79e-3ea8-47a6-94f6-2cb65238f9f7-master.m3u8https://video.igem.org/videos/embed/k2iGo55qNhV1L8vS9rzohm977052025-11-17T10:18:51.208ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/4pqWxjaqxxX82QsmfA6unChttps://video.igem.org/lazy-static/thumbnails/8697034a-54cc-4ed8-b74b-9e807ea7d84a.jpgBridging the Education Gap in Biosafety & BiosecurityAmidst the surge of biological innovation, responsible research practices to safeguard our communities and environment becomes even more important. The Mastering Biosafety & Biosecurity free course gives an introduction to these issues, equipping scientists with essential biosecurity and biosafety knowledge to practice safe science. Dive into laboratory safety, ethical practices, and global policies to empower your science with safety and responsibility.https://static.igem.org/peertube/streaming-playlists/hls/1b90e489-731c-46aa-a06c-19c07a101e7e/987f7ef0-4ddc-4b2e-b60b-ac31cf49759a-master.m3u8https://video.igem.org/videos/embed/4pqWxjaqxxX82QsmfA6unC833022025-11-17T10:14:30.263ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/6rLDuAF5YqoHVbCq6CgN6fhttps://video.igem.org/lazy-static/thumbnails/920f98bc-a21f-46c4-9260-2547f8cd240a.jpgFleur: An Oral Delivery System for GLP-1GLP-1 receptor agonists, such as semaglutide, stimulate insulin production while blocking glucagon release and slowing down stomach emptying. Though effective at weight management, semaglutide has several adverse gastrointestinal side effects, ranging from mild nausea and diarrhea to severe damage to the kidneys and pancreas. Semaglutide’s injectable synthetic form and extended systemic half-life make it difficult for patients to access and tolerate this medication. In response, Fleur was designed as an orally delivered engineered probiotic that can express and secrete wild-type GLP-1 within the human gastrointestinal tract. By using components of the body’s own gut microbiome and avoiding synthetic products, we hope to reduce systemic exposure to semaglutide and lower the risk of adverse events, while making a product that more sustainably controls T2DM symptoms and provides a comfortable and affordable alternative to injectable products.https://static.igem.org/peertube/streaming-playlists/hls/2c16cd48-c0b9-403c-b24b-9c9a2d823860/47406dac-1d86-4a5c-a829-f1900d61330f-master.m3u8https://video.igem.org/videos/embed/6rLDuAF5YqoHVbCq6CgN6f627072025-11-17T12:13:56.729ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/pv6iQtntkwW34FjQfSFMivhttps://video.igem.org/lazy-static/thumbnails/59e0f71a-0ee9-492b-b21b-00b956eab6bb.jpgCreativity, Science, and CommunityExplore the intersection of arts and sciences through the lens of BioArt, encouraging iGEM participants to engage in critical thinking and creativity. The will showcase how innovation in synthetic biology and artistic meaning can emerge from transdisciplinary approaches.https://static.igem.org/peertube/streaming-playlists/hls/be520785-7b38-4d8c-a348-6084a9ad0143/c15c181a-9cc8-42c6-9f4f-4b98b50ab0b0-master.m3u8https://video.igem.org/videos/embed/pv6iQtntkwW34FjQfSFMiv1084022025-11-17T10:23:22.183ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/cZSDm8qh8RxvmhgJ2Gd9j7https://video.igem.org/lazy-static/thumbnails/fc817a72-67d6-43e0-b454-c3e47320b47b.jpgOrganizing the Mini JamboreeMini Jamboree: Building Connections Before the Grand Jamboree The iGEM experience is about much more than science alone. It’s about collaboration, feedback, and preparing to share your project with the world. To support this, we, iGEM Eindhoven organized a Mini Jamboree in Eindhoven at the 17th of October, bringing together teams, sponsors, and experts ahead of the Grand Jamboree in Paris. This event gave teams the chance to practice their presentations, receive constructive feedback, and connect with peers in an inspiring setting. By simulating the Jamboree atmosphere, participants could refine their pitches, grow their confidence, and strengthen their projects. In this talk, I will share how the Mini Jamboree was set up, what impact it had on participating teams, and how such initiatives can make the iGEM journey even more valuable. Join me to discover more about the Mini Jamboree.https://static.igem.org/peertube/streaming-playlists/hls/6129216d-1a3d-4ff9-acc5-f1a19ffe1f3a/06b1a0d7-0c16-4459-96f7-117a6901fd85-master.m3u8https://video.igem.org/videos/embed/cZSDm8qh8RxvmhgJ2Gd9j7714042025-11-17T12:09:55.741ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/n4ztY59oDQ5mq8meYnxLTthttps://video.igem.org/lazy-static/thumbnails/82403dc3-179e-40cb-b004-13f93f459ae1.jpgThe Living PentaconeCoastal defense structures are important in protecting coastal communities from harsh sea conditions, including huge waves and erosion. However, these structures develop microcracks that progressively expand into larger cavities, compromising structural integrity and endangering coastal populations. Our team addresses this challenge through a multi-faceted approach centered on engineered Vibrio natriegens bacteria that employ biocementation to repair microcracks before they develop into structural failures. We have also designed an optimized coastal structure with enhanced hydrodynamic properties to mitigate erosion more effectively. Our pentacone structure features biosensing capabilities that detect changes in ocean pH and the presence of heavy metals, including mercury, cadmium, and arsenic, providing early warning of environmental deterioration. Coastal degradation often occurs in conjunction with plastic pollution and inadequate ecological monitoring. Our solution integrates educational initiatives to address marine plastic waste. This project integrates synthetic biology and community engagement to design systems that work in harmony with natural processes.https://static.igem.org/peertube/streaming-playlists/hls/aa8fc6fd-1bc4-4a82-a753-77f54a29b041/05266b8f-5fb9-4259-b7b2-5e04eed1f1c2-master.m3u8https://video.igem.org/videos/embed/n4ztY59oDQ5mq8meYnxLTt512042025-11-17T12:11:15.698ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1XxyxgDFaEbPYeSM9BwTf2https://video.igem.org/lazy-static/thumbnails/6dac06ba-18a3-459f-ba7a-d7bdff560f78.jpgProduction and Application of Sialic AcidIn the speech, we will discuss the production of sialic acid by 3 different methods and the potential application of the sialic acid in infant formula and health product.https://static.igem.org/peertube/streaming-playlists/hls/07c15b86-63c6-451a-8099-43ed3fc71779/219b0d09-9080-4431-86ce-79b5de053dc5-master.m3u8https://video.igem.org/videos/embed/1XxyxgDFaEbPYeSM9BwTf2567032025-11-17T12:12:10.132ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/acf8jgEGnSa4hgZkt7ApMjhttps://video.igem.org/lazy-static/thumbnails/185c3932-a9fe-4d0e-9060-da450f841a49.jpgSmokeOff: Engineering Enzymes to Block TSNAs Formation from Third-Hand SmokeGlobally, more than 1.3 billion people use tobacco. While the dangers of first- and second-hand smoke are widely recognized, third-hand smoke—residual pollutants that settle on clothing, furniture, walls, and dust—remains an underappreciated health threat. Among its most hazardous constituents are tobacco-specific nitrosamines (TSNAs), formed through the reaction of residual nicotine with airborne nitrite. TSNAs are strongly carcinogenic and highly resistant to degradation. To address this, we propose a dual-enzyme strategy: NicA, NicB, and NicC for the degradation of surface nicotine, and NirS, NorB, and NosZ for the removal of environmental nitrite. By preventing TSNA formation at the source, this biosafe and sustainable enzyme-based spray presents a novel synthetic biology approach to indoor environmental detoxification.https://static.igem.org/peertube/streaming-playlists/hls/4a74228b-802e-4cc4-8917-3f7a65fd9850/a1241fe0-e841-45e2-a549-8e20b103e270-master.m3u8https://video.igem.org/videos/embed/acf8jgEGnSa4hgZkt7ApMj531022025-11-17T12:12:35.169ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/6Yme8FnsP3kQ7nnkFFcFNDhttps://video.igem.org/lazy-static/thumbnails/6e3f6e2e-ff71-418d-8dd7-2a38668dbf12.jpgUnveiling Plastic Degradation EnzymesWhite pollution refers to environmental problems caused by plastic waste. Plastic-degrading enzymes can efficiently break down plastics, representing a novel approach in environmental protection. Team research focuses on optimizing enzyme activity through biotechnology, which holds significant value for pollution control and sustainable development.https://static.igem.org/peertube/streaming-playlists/hls/305bcf34-7a5b-4bf8-a606-807310686fd5/7703b486-85fa-4e48-858e-4c119ffce884-master.m3u8https://video.igem.org/videos/embed/6Yme8FnsP3kQ7nnkFFcFND578052025-11-17T12:12:59.705ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/1gfwTLpcTzeE2Xz3vVkzjZhttps://video.igem.org/lazy-static/thumbnails/8fbe9f52-a1dc-46b3-ba3e-d7439ab16b09.jpgBioreactive Heritage Protection Using Engineered E. coli with Enhanced Sulfur Reduction and Biosi...Recently, more and more cultural heritage sites used microorganisms for biocleaning and protection. Our project leverages synthetic biology to develop a sustainable solution to protect heritage sites from environmental deterioration. Our project comprises two parts. Firstly, we addressed acid erosion by engineering sulphur reduction pathways. We engineered E. coli to reduce sulfate and sulfite to cysteine. We utilised two genes, YdeD, which exports cysteine out of bacterial cells, and YhaM, which degrades cysteine, to drive the reduction pathway. Secondly, we employed silicatein-expressed E. coli to catalyse the formation of biosilica from tetraethyl orthosilicate. This biosilica could fill cracks in structures and improve structural integrity. We also adopted csgA adhesion domain, which ensures our engineered E. coli adheres to building surfaces under acidic conditions. Together with our hardware for crack-repairing and models to estimate corrosion, we believe our project can bring new insights for future heritage protection projects utilising synthetic biology.https://static.igem.org/peertube/streaming-playlists/hls/02211cd3-6d4c-4b60-baec-3ec2ae861659/a2e05959-f5e7-4e85-9b09-4be4b6f91a9f-master.m3u8https://video.igem.org/videos/embed/1gfwTLpcTzeE2Xz3vVkzjZ608082025-11-17T12:13:31.518ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/swDi8HFenJ3CDHX1jKkrArhttps://video.igem.org/lazy-static/thumbnails/2c92a7d3-038b-4f9e-a888-fef40bdff9ed.jpgBio‐Based Carbon Capture Reactor - Dancing JJWe developed a bio-based carbon capture reactor using Emiliania huxleyi to enhance CO₂ fixation through synthetic genetic constructs and audio stimulation. Three gene vectors, DGA1 for biofuel synthesis and NCE103, CA9 for biomineralization for bio-concrete, were expressed and validated in yeast kluyveromyces marxianus. A smart photobioreactor was engineered with an ESP32 microcontroller, integrating temperature regulation, timed illumination, turbidity/thermal monitoring, audio stimulation, and cloud-based data logging. Beyond laboratory validation, the team assessed potential industrial applications via carbon credit modeling aligned with SDGs and developed an educational board game to promote public understanding of carbon trading. This multidisciplinary platform demonstrates a novel integration of synthetic biology, digital systems, and socio-economic tools for scalable carbon capture and sustainability education.https://static.igem.org/peertube/streaming-playlists/hls/d6d4e701-69cb-43da-8ccf-0d5befb8a4b9/e9cf7199-de86-4550-b77f-088864fd2aa0-master.m3u8https://video.igem.org/videos/embed/swDi8HFenJ3CDHX1jKkrAr6330112025-11-17T12:17:22.830ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/ixbSb1eRcpgPdrWjojNfquhttps://video.igem.org/lazy-static/thumbnails/5b63b847-36c0-4f64-953d-3b9fb6fefaa9.jpgWukong SmartDrive: A Micro-Biohybrid Robotic System for Precision Delivery of Engineered Bacteria...China's classical novel “Journey to the West”, the project transforms his "72 transformations" of adaptability and breakthrough spirit into technical design concepts, demonstrating the deep integration of traditional wisdom and modern technology. Technically, our team successfully developed a novel vaccine delivery system responsive to specific light signals using gene editing technology. This system utilizes a biomimetic vaccine robot to achieve targeted penetration of fish immune barriers and precise activation of immune responses, thereby significantly enhancing disease resistance in fish. Meanwhile, the automated immersion inoculation equipment adopts high-efficiency, non-destructive designs to ensure high precision and scalability during inoculation, making it suitable for large-scale farming scenarios. Practice has shown that this technological system effectively reduces antibiotic usage and decreases disease outbreak frequency. The project's achievements provide innovative solutions for marine ecological protection and global food security, showcasing the potential of interdisciplinary collaboration in addressing agricultural challenges.https://static.igem.org/peertube/streaming-playlists/hls/8e061c23-15fe-4eb3-a3b0-07396e001414/1af319fb-cd06-4d46-b688-9c4ee5b1253d-master.m3u8https://video.igem.org/videos/embed/ixbSb1eRcpgPdrWjojNfqu603012025-11-17T12:14:34.250ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/2wgmEGt3AiPohC38JwruU7https://video.igem.org/lazy-static/thumbnails/2868a66c-2df4-413b-9c9f-d5b9cc0befe3.jpgLarVase: Bioengineering Cellulase with YebF-Mediated Secretion for Sustainable Manufacturing and ...Food waste has a huge impact on our planet. It destroys habitats, emits huge amounts of greenhouse gases, and threatens society deeply. Currently, one of the most sustainable methods is using black soldier fly larvae to degrade food waste. However, black soldier fly larvae are unable to efficiently digest cellulose, suggesting that improving the degradation process could enhance overall conversion efficiency and lower the costs associated with food waste treatment. LarVase aims to mass-produce endo-1,4-β-glucanase, a cellulase originating from Bacillus subtilis, through cloning into an E. coli BL21 expression vector. With our specially designed plasmids, we used YebF, a carrier protein having a similar function as a signal peptide, to be able to transport endo-1,4-β-glucanase outside the cell. This will lower the current costs of enzyme production while maintaining environmental sustainability.https://static.igem.org/peertube/streaming-playlists/hls/0c52ea59-f6f3-4fa1-830f-3063dd6d6286/3fd94939-4d97-4746-96dd-105b4facabf1-master.m3u8https://video.igem.org/videos/embed/2wgmEGt3AiPohC38JwruU7624072025-11-17T12:16:55.626ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8FyqijbCZrpiqeLXg5FQQKhttps://video.igem.org/lazy-static/thumbnails/9f5d7b92-2ee0-4376-ac7f-52b43f9bf08d.jpgTrashformers - Enzymatic Glycolysis of Polyethylene Terephthalate (PET) Textile Fibres, and Upcyc...Polyethylene terephthalate (PET), the main component of polyester textiles, dominates global fiber production and generates millions of tons of waste annually. Current recycling methods rely on energy-intensive chemical processes. Our project, Trashformers, tackles this challenge by developing a synthetic biology system for PET textile recycling and upcycling, designed to provide all the reaction components needed for efficient depolymerization and upcycling. We focus on enzymatic glycolysis to depolymerize PET into bis(2-hydroxyethyl) terephthalate (BHET), a monomer suited for re-polymerization. To achieve this, we designed a system based on E. coli BL21(DE3) and devices utilizing PETase hydrolases. We design two complementary systems in parallel. The first employs enzymatic hydrolysis to degrade PET into terephthalic acid (TPA), and ethylene glycol required for subsequent glycolysis. The second uses rational enzyme design to create a novel enzyme that activates TPA with coenzyme A Paving the way for PET upcycling through metabolic and chemical valorization.https://static.igem.org/peertube/streaming-playlists/hls/3e35f4df-3e81-405e-bd83-b89006244543/35928ba0-bb98-4677-98e7-04cceb806787-master.m3u8https://video.igem.org/videos/embed/8FyqijbCZrpiqeLXg5FQQK5580112025-11-17T12:16:33.636ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/fm8EkwVeMpndkqjne7KcGxhttps://video.igem.org/lazy-static/thumbnails/8df2a850-5b52-4eaa-a2a1-f2eff4159c37.jpgWood-Fed Yeast, Youth Increased, No More Aging Tease! Xylose Operon-Regulated Two-Stage Enzymatic...Pro-Xylane is highly valued in cosmetic and dermocosmetic applications owing to its notable biological activities, including anti-inflammatory and anti-aging effects. Conventional production, however, relies on environmentally unfriendly chemical synthesis or limited natural extraction with low yield and high cost. To address these challenges, we developed a biosynthetic system in engineered Komagataella pastoris. By co-expressing high-performance xylanase and Pro-Xylane synthase, our chassis enables direct, value-added conversion of xylan into Pro-Xylane. The system features a smart xylose-inducible module that dynamically regulates a modular enzymatic cascade through tailored metabolic pathways. Integrating synthetic genetic circuits with native pentose metabolism and applying modular control strategies, we established an efficient, sustainable, and tunable production system. This approach highlights the power of synthetic biology–driven cell machines for high-value biotransformations and provides a proof-of-concept platform for the programmable biosynthesis of Pro-Xylane.https://static.igem.org/peertube/streaming-playlists/hls/742f89b2-e317-4c76-998d-aa6b92aef433/ad202635-5aeb-4eb5-9580-90e1bc736f4c-master.m3u8https://video.igem.org/videos/embed/fm8EkwVeMpndkqjne7KcGx612022025-11-17T12:15:36.326ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/oVqXqYt2kN7c1NBgnhWmkmhttps://video.igem.org/lazy-static/thumbnails/53af815c-7c5b-4492-aec4-addd8aa87751.jpgReGenstitch: Triple-Engineered Bio-Sutures—Revolutionizing Wound Closure with Strength, Antimicro...SynSuture addresses the limitations of traditional sutures—poor biocompatibility, infection risks, and non-degradability—through a synthetic biology-driven integration of three functional modules: Bacterial Cellulose (BC) for mechanical strength and biocompatibility; Chitosan/Chitooligosaccharides (COS) derived from shrimp shell waste for antimicrobial and wound-healing effects; and microbially synthesized Curcumin for targeted anti-inflammatory regulation. Using engineered E. coli strains, we produce these components efficiently, creating a multifunctional suture that synergizes structural support, infection control, and anti-inflammatory modulation—all while enabling sustainable biom manufacturing.https://static.igem.org/peertube/streaming-playlists/hls/b99ed98e-33eb-45e7-abd7-e2d18374fe02/a30f0ca8-2c2b-444f-97a1-fcad78e7a63a-master.m3u8https://video.igem.org/videos/embed/oVqXqYt2kN7c1NBgnhWmkm582002025-11-17T12:17:42.331ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/8MMD8iK6ECTYnm7BEQ9dTUhttps://video.igem.org/lazy-static/thumbnails/9b350544-87a3-434b-87aa-b6a866b2f272.jpgImmunotherapy Specific for Allergies to Pollen, Dust Mites and SeafoodAllergic reactions are becoming an increasingly serious public health issue worldwide, especially in Guangdong. The incidence of allergic diseases is continuously rising, which not only affects the quality of life of patients but also imposes a burden on the medical system. Polyvalent vaccines are an important direction for future vaccine research and development. They have significant advantages in enhancing immune efficacy, reducing the number of vaccinations, increasing vaccine coverage, and reducing costs. This project, based on genetic engineering and nanotechnology, combines allergic immunotherapy to develop polyvalent vaccines, aiming to reshape the body's immune system and improve the body's immune tolerance to allergens.https://static.igem.org/peertube/streaming-playlists/hls/3f149125-c64d-4491-8a77-69bfdb874b32/441bb1ec-164b-44c3-8140-417303db7126-master.m3u8https://video.igem.org/videos/embed/8MMD8iK6ECTYnm7BEQ9dTU475012025-11-17T12:18:22.837ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/vQ5jFjUePkQchS1UTmhKoEhttps://video.igem.org/lazy-static/thumbnails/4e926032-49c5-442f-b98c-f471b6b309fc.jpgSmart Fluorescent Probes: Bacteria 'Invent' Themself, Real-time Monitoring of NO, Blocking Cardio...This study innovatively developed a novel genetically encoded NO fluorescent probe based on synthetic biology. The probe utilizes genetically engineered E. coli as a biological vector, coupling a precisely designed NO-sensing protein module with a fluorescent reporting system to achieve highly sensitive and specific real-time monitoring of nitric oxide (NO). As a crucial signaling molecule in cardiovascular diseases, this technology provides a groundbreaking dynamic monitoring approach for early diagnosis of conditions such as atherosclerosis and hypertension.Compared with traditional detection methods, this probe demonstrates significant advantages including simple operation, low cost, and capability for long-term continuous monitoring.https://static.igem.org/peertube/streaming-playlists/hls/f18f62b9-daa9-4484-abf5-34d805f743ce/f9c4498e-8b98-4cc5-8ed1-6b516981a8ef-master.m3u8https://video.igem.org/videos/embed/vQ5jFjUePkQchS1UTmhKoE574022025-11-17T12:20:34.689ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/eHr5Ug8894Jcugi394DPYLhttps://video.igem.org/lazy-static/thumbnails/423afb53-2f81-4470-9363-c3f6991464db.jpgR-Home: mRNA Hepatic Optimized Modules for Liver CancerHepatocellular carcinoma poses a severe global burden, with China accounting for nearly half of all cases. Current therapies face challenges in specificity, resistance, and cost. To overcome these limitations, R‑Home presents an integrated mRNA platform for precise HCC treatment. Our unified mRNA system enables dual-protein regulation, restoring tumor suppressor HNF4α while degrading oncogenic TGF‑β via p-PROTAC. We enhance specificity through GPC3-targeted LNPs and miR-21-responsive RNA switches (exCAG and eukaryotic toehold), ensuring tumor-selective expression. The platform also features optimized 5′UTRs and a spatial PK/PD model predicting drug behavior in tumors. We provide this complete system to the iGEM community, including a standardized Part Collection with optimized UTRs, eukaryotic RNA switches, and targeted delivery components, along with open-source computational models and hardware specifications - collectively advancing the development of accessible and precise cancer therapies,paving the way for accessible and precise cancer therapies.https://static.igem.org/peertube/streaming-playlists/hls/6f0fc18a-b4db-4603-8fcf-1bc7a0b7c470/965b52fe-0cb3-40e1-a105-0275d8568732-master.m3u8https://video.igem.org/videos/embed/eHr5Ug8894Jcugi394DPYL5920172025-11-17T12:20:58.462ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/v49GcrdbQG6irwd19Q8545https://video.igem.org/lazy-static/thumbnails/8dcb5320-42ee-4d27-9da7-c8df880a59b4.jpgProgrammable circRNA Switches for Cell‑Type‑Specific Gasdermin‑Based Cancer TherapyWe present Cellective: a riboswitch-based therapeutic platform that selectively targets cancer cells by detecting specific microRNAs and mRNAs, subsequently translating a cellular kill system. This platform is intended to be further developed specifically for the treatment of triple-negative breast cancer (TNBC), a particularly aggressive and hard-to-treat form of breast cancer. The selective detection of cancer-specific marker RNAs using the engineered riboswitch RNAs enables a highly specific, minimally invasive therapy that spares healthy cells and is only activated in tumor-relevant contexts. The modular design allows for flexible adaptation to different tumor types and RNA profiles, allowing personalized medicine. We successfully engineered this therapeutic system and confirmed its functionality.https://static.igem.org/peertube/streaming-playlists/hls/eb499c17-9387-408b-af4b-93624bdb9e5a/5ef7b0b5-1314-4fcf-b3cc-f71472117a0a-master.m3u8https://video.igem.org/videos/embed/v49GcrdbQG6irwd19Q85454130182025-11-17T12:19:23.918ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/sFPnQAi8KUmeHjikMQtC2Khttps://video.igem.org/lazy-static/thumbnails/a48e6b41-ea37-4834-9451-69b4577dba4f.jpgThe Development of a Proof of Concept for a Continuous Lactate MonitorOur aim is to develop a wearable biosensor that continuously monitors lactate concentration in the interstitial fluid. The current method to measure lactate levels widely used by professional athletes requires blood sampling through invasive needles and the use of disposable strips, disrupting training flow. Building on the success of continuous glucose monitors, our device will embed lactate‐oxidizing enzymes (e.g., lactate dehydrogenase) within a microneedle array to catalyze lactate in dermal interstitial fluid into pyruvate and hydrogen peroxide. An integrated electrode will then oxidize the generated hydrogen peroxide, producing electrons whose current correlates directly with lactate concentration. By tracking these electrical signals in real time, athletes can optimize training and recovery on the run while reducing recurring costs and biological waste. During our project, we have expressed and immobilized the enzyme and verified them through electrochemical detection techniques to present a proof on concept.https://static.igem.org/peertube/streaming-playlists/hls/d81ccf1a-dac4-46bb-a0f9-36297581f50d/ba229783-0fce-4e52-aba0-8e70730d3be7-master.m3u8https://video.igem.org/videos/embed/sFPnQAi8KUmeHjikMQtC2K460042025-11-17T12:20:01.887ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/dtMcj7qNMaqi1j3UVDunrghttps://video.igem.org/lazy-static/thumbnails/9d920562-c60f-4388-b6b2-ee84729113c6.jpgEstonia-TUBI: Judging Session To reduce harmful greenhouse gas emissions, renewable energy storage is critical. Lithium-ion batteries dominate but pose environmental risks from mining, production, and disposal. Microbial fuel cells (MFCs) offer a greener alternative: microorganisms oxidize organic waste, generating electricity while cleaning wastewater, providing sustained, low-carbon energy with fewer ecological impacts. In this project, we engineer yeast MFCs with enhanced electron storage and electron transfer capacity. We achieve that goal by elevating the Saccharomyces cerevisiae intracellular NADH pool and enhancing their extracellular electron transfer. Using the CRISPR/Cas9 genetic editing tool, we deleted genes encoding the key enzymes of glycerol and ethanol biosynthesis, and external mitochondrial NADH dehydrogenase. Engineered strains were tested in custom MFC hardware. To fully leverage the increased intracellular NADH levels, we propose the heterologous expression of fungal cellobiose dehydrogenase (CDH) on the yeast cell surface to enhance the cell’s ability to transfer electrons to electrodes. https://static.igem.org/peertube/streaming-playlists/hls/650e991f-d8d3-408f-b80b-eb1822cbd37d/c58a20a3-e354-4659-a2de-8e24c56a3813-master.m3u8https://video.igem.org/videos/embed/dtMcj7qNMaqi1j3UVDunrg1721052025-11-17T12:44:00.989ZYES2025 Judging SessionsNOhttps://video.igem.org/w/xeEzSQTx7XZtpRmKTNbfrqhttps://video.igem.org/lazy-static/thumbnails/1fc749dd-3030-43b1-ae1c-6858ffa060ea.jpgCareers in Science Communication and MarketingThis session showcases the iGEM to Science Communication pathway, highlighting how experiences from the iGEM Competition can evolve into dynamic careers in Science Communication, illustration, design, and marketing. Hear from early-career professionals who have transformed their passion for synthetic biology into creative roles that make science accessible, engaging, and impactful.https://static.igem.org/peertube/streaming-playlists/hls/fcf3bee9-b224-4515-a492-4d8a995474ca/f4fb0be8-6029-416a-b9db-d204a994aea0-master.m3u8https://video.igem.org/videos/embed/xeEzSQTx7XZtpRmKTNbfrq18250142025-11-17T10:48:58.937ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/tvLGjHNgGFSniN7scD72nyhttps://video.igem.org/lazy-static/thumbnails/c2a11a8a-4b2e-43a2-a715-f784964ca4e0.jpgIntellectual Property: Ask Me AnythingIntellectual Property: Ask Me Anythinghttps://static.igem.org/peertube/streaming-playlists/hls/decedb88-e883-4759-bb10-c90043079da6/2d36ed7f-2778-4492-a471-72e05b3c77b2-master.m3u8https://video.igem.org/videos/embed/tvLGjHNgGFSniN7scD72ny2852082025-11-17T10:43:10.200ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/hfvV4UdotcLQN84DSBQdsHhttps://video.igem.org/lazy-static/thumbnails/08908a55-0f91-43a8-bcf3-3cb49661634d.jpgPause-Aware Codon Design AssistantProtein translation proceeds discontinuously, with ribosomes pausing to enable co-translational folding of nascent chains. Although ribosome profiling (Ribo-seq) has revealed widespread translational pauses, existing mRNA design frameworks largely ignore these kinetic features. Here, we identify conserved pausing sites across multiple human cell lines using EIF-based Ribo-seq and propose that such pauses facilitate proper protein folding. We developed PACD (Pause-Aware Codon Design), a computational framework that incorporates ribosome pausing information into mRNA optimization. A neural model trained on pausing sequences enables predictive integration with LinearDesign to preserve beneficial pauses during codon optimization. While pause-constrained designs slightly reduce mRNA stability and CAI, they are expected to enhance folding efficiency. This study represents the first systematic attempt to link translational pausing with codon design, providing a foundation for engineering “pause-aware” synthetic genes with improved structural fidelity.https://static.igem.org/peertube/streaming-playlists/hls/8399112c-707d-44c3-bdb4-e2a10806376d/9ee7fd6b-b0dc-43c1-a627-72c615eb88e2-master.m3u8https://video.igem.org/videos/embed/hfvV4UdotcLQN84DSBQdsH357042025-11-17T12:18:37.727ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/v1zBdxU1dsidPdBEumwPMQhttps://video.igem.org/lazy-static/thumbnails/6287beaf-b607-4fb7-a12a-653e3a33bb25.jpgCASPIACASPIA is an intelligent, fully automated platform that transforms raw genomic data into kinetics-aware genome-scale metabolic models (GEMs), serving as digital twins of cells. It integrates genome annotation, parameter prediction, model construction, and optimization in one pipeline. CASPIA comprises four engines: GEMFactory, assembling stoichiometric models with kinetic and thermodynamic constraints; CASPred, predicting missing parameters (kcat, Topt) via a geometric vector perceptron trained on ~90k records; CASPIAgent, a natural-language-driven agent executing modeling and design tasks; and CASPIA-RAG, extracting quantitative data from literature. CASPIA upgrades GEMs to enzyme-constrained models (ecGEMs), supports flux simulation and multi-scale optimization (FBA, PFBA, FVA, OptKnock, FSEOF), and enables deep mutational scanning. Validated on Saccharopolyspora spinosa, it autonomously designs gene knockouts, overexpression, and enzyme mutations. A public web server allows asynchronous task submission, making high-fidelity metabolic modeling widely accessible.https://static.igem.org/peertube/streaming-playlists/hls/eaedbb77-fc5d-48e1-9e64-b8d26c2f8e6e/0cd4e4af-2791-4562-94c8-2a704e639ad1-master.m3u8https://video.igem.org/videos/embed/v1zBdxU1dsidPdBEumwPMQ608002025-11-17T10:08:44.100ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/r4ucUATAcs38ZNdde6sqSGhttps://video.igem.org/lazy-static/thumbnails/833f9a61-84f6-493e-b96e-3988c8fa411d.jpgIntroduction to AMPilot and Other ModelingI will introduce AMPilot (the use and innovation of our developed wet experiment assistant) and explain how to utilize the reasoning ability of large models to achieve functions such as retrieval, learning, and analysis. In addition, it also includes other modeling contents such as molecular dynamics simulation.https://static.igem.org/peertube/streaming-playlists/hls/caf11476-d795-46d5-82e0-8de74becf65c/b5a3936b-402d-47f3-b4c8-46a43f42a76a-master.m3u8https://video.igem.org/videos/embed/r4ucUATAcs38ZNdde6sqSG529012025-11-17T10:09:42.033ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/99CJaKMtyKXAxbK9FUHjQ9https://video.igem.org/lazy-static/thumbnails/55e581ae-42db-4078-8be8-d825be29e281.jpgCERES: Computational Enzymes Research and Exploring SystemWe developed a novel machine learning model named “LEAPS” that enables efficient protein function improvement from limited datasets. Conventional protein engineering requires large-scale experimental data, extensive expertise, and prolonged trial-and-error processes, making research execution heavily dependent on institutional funding and human resources. Consequently, significant barriers remain for student teams and small-scale laboratories attempting to engage in protein engineering. LEAPS substantially reduces these constraints and provides an accessible environment for researchers to perform multi-objective optimization of proteins. This model enables student teams participating in iGEM and researchers with limited resources to undertake functional improvements such as enzymatic activity enhancement and antibody affinity optimization, dramatically expanding research possibilities. Furthermore, we have developed and publicly released LEAPS as a web application, establishing a platform accessible to the broader research community. This model has the potential to promote data-driven protein engineering and accelerate research and development across all fields of life sciences.https://static.igem.org/peertube/streaming-playlists/hls/41fdb17a-ded4-4748-96b1-d6df3bd58ff8/aacf4cc4-ceae-467d-9a80-85c285168721-master.m3u8https://video.igem.org/videos/embed/99CJaKMtyKXAxbK9FUHjQ9589002025-11-17T10:11:58.033ZYES2025 Live Stage TalksNOhttps://video.igem.org/w/w1Cm96USJ6NrfGomxoXwNKhttps://video.igem.org/lazy-static/thumbnails/64760971-d0c1-4e9a-b6d4-cb8fd9379830.jpgWelcome and IntroductionThe Responsibility Conference is held here, in the heart of iGEM. For the next two days, we'll dicuss the myriad ways that technology intersects with society, and how we as synthetic biologists can help to push the frontiers of science safely, securely, and responsibly.https://static.igem.org/peertube/streaming-playlists/hls/f3088f40-9e3d-46e0-a4b7-c1f0c6306d27/53b8ba5d-351a-4819-baf0-e1d3b6780dd7-master.m3u8https://video.igem.org/videos/embed/w1Cm96USJ6NrfGomxoXwNK140022025-11-17T10:11:19.695ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/r5HxVwj8v31YJDu7K1NYzmhttps://video.igem.org/lazy-static/thumbnails/834cbf29-5154-47cd-82dd-61df5cf10bab.jpgLightning Talk: Responsible Use of Biotechnology in a Defence ContextLaura Regan is a retired U.S. Air Force officer with years of experience as a bio-strategist and researcher. She is currently serving as the Acting Vice Chair of the North Atlantic Treaty Organization (NATO) Technology & Science Incubation Panel/Biotechnology Lead. This research effort is focused on increasing representation of non-medical biotechnology efforts within NATO's Collaborative Programme of Work (CPoW). . As a board-certified forensic anthropologist, she also specializes in skeletal analyses, mass fatality management, air mishaps, body fragmentation, thermally degraded remains, and stable isotope geochemistry. She hasa performed casework around the globe with the Armed Forces Medical Examiner and other organizations and consulted for the U.S. Department of State, FBI, NASA, National Transportation Safety Board, Peace Corps, Defense POW/MIA Accounting Agency, State of Maryland, City of Denver and many local and federal law enforcement and intelligence agencies.https://static.igem.org/peertube/streaming-playlists/hls/cb1d0c44-70fc-469d-90c8-640c01a090fe/f7b49872-f531-412b-9c6c-144f9ddc342e-master.m3u8https://video.igem.org/videos/embed/r5HxVwj8v31YJDu7K1NYzm462032025-11-17T10:19:07.116ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/hCKXe8qBYjZR6196zGVJGkhttps://video.igem.org/lazy-static/thumbnails/5742b477-2694-4050-bf1d-b7b92112e74a.jpgClosingThe iGEM Responsibility Conference is the only place where scientists, policy makers, students, and members of the public can come together for crucial conversations about Responsibility in science. Thank you for joining us!https://static.igem.org/peertube/streaming-playlists/hls/86b414ad-7b97-4d4a-ad35-cd10298790b3/5d0e38bc-e3ad-4cca-9ade-298b4e16d5b8-master.m3u8https://video.igem.org/videos/embed/hCKXe8qBYjZR6196zGVJGk137022025-11-17T10:12:09.832ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/w3nbLgHzYWHzXPp1KZNYjThttps://video.igem.org/lazy-static/thumbnails/580d11fe-a799-4d29-a935-7f1a766dabe2.jpgWelcome to the BioInnovation SummitWelcome to the BioInnovation Summithttps://static.igem.org/peertube/streaming-playlists/hls/f346b412-e91e-4796-b08a-14189a2f2447/15d7313f-d4bc-4e9d-bba7-9eec50ad735c-master.m3u8https://video.igem.org/videos/embed/w3nbLgHzYWHzXPp1KZNYjT255032025-11-17T10:14:57.436ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/fNaGTLiroMwunXnM4hMKN9https://video.igem.org/lazy-static/thumbnails/3e78285a-1fd6-4957-b372-878132d49558.jpgScaling Biomade MaterialsBiology is enabling a new generation of sustainable fibers. This talk will explore how Brewed Protein materials were developed, how biomaterials can transform what we wear, and the opportunities and challenges of bringing them to scale.https://static.igem.org/peertube/streaming-playlists/hls/77d222b7-0162-498d-854b-4f16fd18e928/f1657a41-a163-47c1-ab18-50fb409e57d6-master.m3u8https://video.igem.org/videos/embed/fNaGTLiroMwunXnM4hMKN9514002025-11-17T10:21:45.916ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/9C65VRDZNit9ntyoh9yXkVhttps://video.igem.org/lazy-static/thumbnails/3578013a-d07a-44a7-bdc9-91bc96d57951.jpgFreeing the World from PlasticPlastic pollution is one of the defining environmental challenges of our time. A new generation of enzyme technologies is offering a way forward. By engineering enzymes that can break down plastics into their basic building blocks, scientists are creating tools to recycle waste that was once thought impossible to process - and even replace plastics with more sustainable alternatives. This talk will feature a pioneer in enzyme engineering who is pushing the boundaries of what biology can do. They will share how these technologies work, where they are already showing promise, and what it will take to scale them for real-world impact.https://static.igem.org/peertube/streaming-playlists/hls/45d304cb-4d30-453b-85d9-762f3b955d3f/181ca9d7-1f13-4669-a7e8-2377439e9d22-master.m3u8https://video.igem.org/videos/embed/9C65VRDZNit9ntyoh9yXkV1024032025-11-17T10:34:00.639ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/jZJXHXFnDL12xCx3HsMdbShttps://video.igem.org/lazy-static/thumbnails/f1b56135-aa83-44db-9b93-4b8453825c6b.jpgFermentation FrontiersFermentation may be one of humanity’s oldest technologies, but it is now being pushed to its limits as the demands on microbial systems grow. Engineering strains to produce molecules outside their natural repertoire introduces new stresses, trade-offs in yield vs. robustness, and questions of metabolic burden. At the same time, strain diversity brings both opportunities and complexity, with different organisms offering unique capabilities, but requiring highly tailored process design. In this talk, Claus Lattemann will examine the frontier challenges in modern fermentation: How to balance strain design with process optimization, how AI-driven process control can manage dynamic biological variability, and what performance expectations are realistic when microbes are asked to produce compounds they never evolved to make. Beyond the hype, this talk will focus on the critical factors that determine whether fermentation processes can scale reliably, sustainably and economically in today’s bioeconomy.https://static.igem.org/peertube/streaming-playlists/hls/99d45dc4-0280-40f6-b99f-9cc1e352636e/dd63b3b8-a5ba-43e2-b748-4b9fab1e5c3c-master.m3u8https://video.igem.org/videos/embed/jZJXHXFnDL12xCx3HsMdbS1133052025-11-17T10:37:26.269ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/tqU7B3V9ajCQEMjw2L2e2thttps://video.igem.org/lazy-static/thumbnails/d409a71f-0222-4123-a405-d97510978e10.jpgShared Q&AA shared Q&A session between talks: "Freeing the World from Plastic"; "Scaling Biomade Materials"; and "Fermentation Frontiers"https://static.igem.org/peertube/streaming-playlists/hls/de20b5ea-a56d-4c5e-96e8-24bd60061b31/43568e51-906f-447b-b0c8-74b62f2c8afc-master.m3u8https://video.igem.org/videos/embed/tqU7B3V9ajCQEMjw2L2e2t958022025-11-17T10:31:33.491ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/7hfCP9dA4qcTj1wiy82Zdshttps://video.igem.org/lazy-static/thumbnails/a247526b-c7d6-450f-9048-956607bddcd2.jpgOutsmart DiseasesFrom gene therapies to RNA vaccines and the search for universal treatments, biotechnology is rewriting the way we fight disease. What once seemed impossible - curing inherited disorders, designing vaccines in record time, or targeting illnesses with precision - is now becoming reality. This talk will showcase a pioneer at the forefront of this transformation. They will share how new tools and ideas are changing the way we prevent, treat, and even cure disease, and what it means for the future of global health.https://static.igem.org/peertube/streaming-playlists/hls/32dbc051-04cf-4890-9fe4-71914e49b6ae/b98814fa-069f-4055-8624-943825eb0552-master.m3u8https://video.igem.org/videos/embed/7hfCP9dA4qcTj1wiy82Zds1363062025-11-17T10:42:34.310ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/bCCwx9fzCBfxMD4LKtwcNvhttps://video.igem.org/lazy-static/thumbnails/91f9daec-09b3-4846-8231-21ed800550d8.jpgOwning the Code of Life: From IP Pitfalls to Winning StrategiesWho owns the code of life? In biotechnology, the answer is often decided not in the lab but through patents, contracts, and legal battles. Pharma companies are bracing for a looming patent cliff: by 2030, drugs worth more than $180 billion in annual revenue will lose exclusivity. The moment protections expire, generics and biosimilars rush in, eroding value almost overnight. For innovators, this raises urgent questions about how to extend the lifetime of discoveries and defend hard-won markets. In protein engineering and synthetic biology, the challenge is different. Courts are demanding much stricter proof when companies try to claim broad ownership over engineered proteins, while at the same time AI is generating entirely new sequences that blur the line between what is novel and what is obvious. This leaves innovators navigating an uncertain system where it isn’t always clear if their creations can be protected at all. And in industrial bioproduction, scaling up means dealing with IP stacking - a growing burden where multiple patents and licenses accumulate across strains, fermentation processes, and automation tools. Even when the science works, companies may find themselves entangled in a web of overlapping obligations that can be costly, slow to negotiate, and sometimes block a product from reaching the market altogether. This fireside chat will dig into these problems head-on. How do you protect value when the rules are changing? How can innovators avoid being trapped by patent cliffs or IP stacks? And what strategies turn intellectual property from a liability into a lever for growth? What will it take to build winning IP strategies for the future of biotech?https://static.igem.org/peertube/streaming-playlists/hls/5618ac2d-d9da-453f-8ede-06d066cb73d5/80d01f40-1c13-489b-b19f-1137bf3c98f5-master.m3u8https://video.igem.org/videos/embed/bCCwx9fzCBfxMD4LKtwcNv1793032025-11-17T10:52:08.222ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/uVh6zAR6GAtabxQKKxaMSAhttps://video.igem.org/lazy-static/thumbnails/36ce2524-8554-4884-9e2f-f26f7aa372e1.jpgHNU-China: Judging SessionPAHs exert persistent toxic effects on both humans and animals. Taking two relatively simple PAHs—naphthalene and phenanthrene—as examples, we aim to engineer Escherichia coli with the nah, phn, and rhl gene clusters from Pseudomonas and other species to establish a more efficient pathway for their degradation.https://static.igem.org/peertube/streaming-playlists/hls/ea3038cf-e906-4974-844d-dea67603a0c2/f03fa2e3-b384-43d6-bef3-9959ddf2dd77-master.m3u8https://video.igem.org/videos/embed/uVh6zAR6GAtabxQKKxaMSA14120162025-11-18T20:28:20.725ZYES2025 Judging SessionsNOhttps://video.igem.org/w/rqMvXD91RK3QZpEiqom5vchttps://video.igem.org/lazy-static/thumbnails/41ddc8cb-ebc4-4d47-b4ba-3244dcecb7a5.jpgIISER-Kolkata: Judging SessionColorectal Cancer (CRC), the second leading cause of cancer deaths, lacks specific and effective treatments. Our engineered ReSET system uses the probiotic E. coli Nissle 1917 to detect lactate and hypoxia—key tumour microenvironment cues—and secrete an Anti-CD38 Nanobody-Fc fusion, reprogramming immunosuppressive Tregs into healthy cells. Simultaneously, it produces salicylate, a harmless reporter detected via our ReSense paper strip assay, indicating bacterial colonisation and active therapy. This dual-action system combines targeted immunomodulation with real-time monitoring, offering a precise and adaptive therapeutic platform for CRC treatment.https://static.igem.org/peertube/streaming-playlists/hls/cdea5e17-5ef0-4941-8df3-9bc302c886ed/f3b90932-fba8-4a29-a4f8-6815e19baa9e-master.m3u8https://video.igem.org/videos/embed/rqMvXD91RK3QZpEiqom5vc3870382025-11-18T20:35:46.391ZYES2025 Judging SessionsNOhttps://video.igem.org/w/kYAtXK8rXnV1Dx8WRjqNM6https://video.igem.org/lazy-static/thumbnails/7fd76c93-f897-42f0-b9bb-9b4c973577fc.jpgXJTLU-CHINA: Judging SessionGreen tides caused by Ulva prolifera have become a seasonal ecological disaster in Qingdao. The traditional physical salvage methods are time-consuming and laborious. So our team’s project uses a synthetic biology solution to address green tides at the source—spores, a key driver of bloom recurrence.​ Since the core of our project is "capture spore", we rearranged letters and named our project “O! Super Carpet”. It is composed of three main modules. We would like to name them after spells from Harry Potter. First, the 'Ennervate' survival spell ensures that our engineered bacteria can survive in high-salinity seawater. Second, the 'Permanent Sticking' functional spell is responsible for efficiently capturing Ulva spores with specificity. Finally, the 'Avada Kedavra' biosafety spell guarantees safety of the project in open environments. By combining synthetic biology with ecological insight, our project aims to demonstrate how engineered microbes can offer sustainable solutions to marine environmental crises.https://static.igem.org/peertube/streaming-playlists/hls/a1c48937-647d-4436-8ee5-cebb1882dd2f/5208dbfb-628e-404b-8f85-c70a5fb50b9b-master.m3u8https://video.igem.org/videos/embed/kYAtXK8rXnV1Dx8WRjqNM612460722025-11-18T20:40:27.149ZYES2025 Judging SessionsNOhttps://video.igem.org/w/nER3CH8osQibwurYszFsg3https://video.igem.org/lazy-static/thumbnails/9b610400-10ed-497c-a49e-0fbed2840312.jpgHG-Tokyo: Judging SessionOur project focuses on hay fever (allergic rhinitis) which is a major burden in our country Japan. We propose two solutions: the biosynthesis of narirutin and the engineering of a fusion peptide. Narirutin is a flavonoid compound found in Jabara, which is a citrus fruit grown mainly in Wakayama prefecture in Japan. This compound has anti-allergic properties, and is proven to be effective for hay fever. Our fusion peptide is mainly made out of three immunomodulatory peptides, connected with cleavable linkers. The fusion peptide is designed so that the linkers cleave at specific parts of the pathway of allergic rhinitis, dropping off certain peptides at certain parts of the mechanism. We also created a new, 100% recyclable nasal spray, as well as conducted many human practices and education initiatives targeting a wide range of people.https://static.igem.org/peertube/streaming-playlists/hls/af7c6681-d247-470d-a4a7-cbe684bb72f8/e9498174-9e0a-4f30-bc91-d27af2a06985-master.m3u8https://video.igem.org/videos/embed/nER3CH8osQibwurYszFsg318320312025-12-09T14:45:54.598ZYES2025 Judging SessionsNOhttps://video.igem.org/w/4nsiPRSbfoE8scmHcAmVfchttps://video.igem.org/lazy-static/thumbnails/8d4b3fd1-b33b-4d6c-b09a-510661557947.jpgiGEM 2025 Opening Show | iGEM Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/1b4a3f63-eb9b-4daa-9c5b-29b4ddf95e0b/09ef82d4-2d83-4b49-9bdc-1ed53e6cbc49-master.m3u8https://video.igem.org/videos/embed/4nsiPRSbfoE8scmHcAmVfc17690562025-12-22T15:04:34.357ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/3dMheRrL9JdqbZNQGTdfdFhttps://video.igem.org/lazy-static/thumbnails/6bae4d3c-96ce-460f-8f55-3e0d61404d58.pngiGEMers - 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Final Day Show | iGEM 2025 Grand JamboreeiGEM Grand Jamboree, Oct 28-31, 2025 | Paris Convention Centre jamboree.igem.orghttps://static.igem.org/peertube/streaming-playlists/hls/c08cb0f4-e002-46f7-8ec7-0825835e29e2/ee10e533-3a77-42f5-8d9c-a037a34b641c-master.m3u8https://video.igem.org/videos/embed/pM4iha2sRi3F8R32nLvmHy8980392026-01-15T23:01:01.424ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/1F71EBF63FGm1hyk1VTNYPhttps://video.igem.org/lazy-static/thumbnails/db52f3a0-65fa-49e5-8656-bc4f04ea3bb8.jpgResponsibility | The Building Blocks of iGEM (4/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/0575b634-4c4a-4e6c-a743-a22505bfca5f/1006b4bf-4f23-4909-b390-13805443a48f-master.m3u8https://video.igem.org/videos/embed/1F71EBF63FGm1hyk1VTNYP63032026-02-12T13:55:11.783ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/5qXWFU84oZU7TpYAYBeWBPhttps://video.igem.org/lazy-static/thumbnails/18d7f7f6-e854-4dd8-8dc6-2549c5338c2f.jpgEducation | The Building Blocks of iGEM (3/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/23e0e193-4dca-4c9f-84d4-9956b78e936d/4a650bab-80f7-4b00-8949-b09d852cc5e7-master.m3u8https://video.igem.org/videos/embed/5qXWFU84oZU7TpYAYBeWBP80012026-02-12T13:55:32.361ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/ueqeiMzuxASF2VbnZpbGHKhttps://video.igem.org/lazy-static/thumbnails/6d023ab6-ebf9-4af1-b0a6-c40c14f98db4.jpgInnovation | The Building Blocks of iGEM (5/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/e49f7bc0-537f-441d-8231-58e192dcc0f5/f7cbcef1-598d-4922-9581-07bf2fbbc750-master.m3u8https://video.igem.org/videos/embed/ueqeiMzuxASF2VbnZpbGHK78032026-02-12T13:56:21.717ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/kwpQHjgyAMvD7MmkifGG4chttps://video.igem.org/lazy-static/thumbnails/ec9f5476-c16a-4193-ad15-e3b9c818a5d2.jpgHolistic Approach | The Building Blocks of iGEM (7/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/9e1ca3b4-fab6-4274-887f-030c6db148d9/79c59a2e-efd7-4f22-a847-c71c5db9ed41-master.m3u8https://video.igem.org/videos/embed/kwpQHjgyAMvD7MmkifGG4c105092026-02-12T13:56:47.499ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/95aXe2ySTsZSyVmxU57RA9https://video.igem.org/lazy-static/thumbnails/849b02c2-ec8a-4659-a75a-472df6c3ef89.jpgTechnology | The Building Blocks of iGEM (2/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/415e37b3-edc3-4c5c-8f4c-a0e757b07a10/078e0cd3-eb37-4b63-8317-25f951a26d72-master.m3u8https://video.igem.org/videos/embed/95aXe2ySTsZSyVmxU57RA977002026-02-12T13:55:51.592ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/uta6d7MbGEYSdmCbTJcpYphttps://video.igem.org/lazy-static/thumbnails/fd8a341b-acad-43e3-9e5b-ffc21abeaad2.jpgCommunity | The Building Blocks of iGEM (6/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/e68a90e9-8831-4f22-b540-538788fafabb/c4e00ce8-0b59-4fe9-ba19-5d64faca5480-master.m3u8https://video.igem.org/videos/embed/uta6d7MbGEYSdmCbTJcpYp87022026-02-12T13:56:36.854ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/n9TvJQ4bv3xVpctVibGozqhttps://video.igem.org/lazy-static/thumbnails/d34bf035-5896-43bd-a602-2604763e2e4b.jpgResilience | The Building Blocks of iGEM (8/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/ab4d9b9d-4492-4b2d-8d91-09db1bab64ea/782a7e36-6a22-422f-bcad-7c43f15607f8-master.m3u8https://video.igem.org/videos/embed/n9TvJQ4bv3xVpctVibGozq83022026-02-12T13:56:34.435ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/ouXw352w4Ldv52zkWfNz2Phttps://video.igem.org/lazy-static/thumbnails/672744d2-dcdc-487f-805e-10eda471d057.jpgExcellence | The Building Blocks of iGEM (9/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/b6341715-ad1c-4c0c-b545-5cdc1b15da1d/145ebd7f-ba00-4069-b51c-69f161a5d0ac-master.m3u8https://video.igem.org/videos/embed/ouXw352w4Ldv52zkWfNz2P54022026-02-12T13:56:04.910ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/ieiGg682USAw85UBkjFeNFhttps://video.igem.org/lazy-static/thumbnails/6745fe34-93cd-4a2a-8ae1-007f83e6e459.jpgJoy | The Building Blocks of iGEM (10/10)Learn more: igem.org/abouthttps://static.igem.org/peertube/streaming-playlists/hls/8b86ee3d-d9ea-4e50-b75a-98e8b46e963f/45110016-f905-4b04-b1cd-f3b893451d80-master.m3u8https://video.igem.org/videos/embed/ieiGg682USAw85UBkjFeNF2030272026-02-12T14:03:53.670ZYES2025 Grand JamboreeNOhttps://video.igem.org/w/gZPrCYAaL9G7AkmExqHd2ohttps://video.igem.org/lazy-static/thumbnails/93b5457d-ab37-47e9-b9af-ed74de84bf7a.png5th Annual Community Day - 20265th Annual Community Day - 2026https://static.igem.org/peertube/streaming-playlists/hls/818bb644-235c-41ee-b2b9-3e50262ce4c8/f56f1b15-7322-4cf0-aca4-78b9297a0cff-master.m3u8https://video.igem.org/videos/embed/gZPrCYAaL9G7AkmExqHd2o3357042026-03-04T09:06:27.778ZYESiGEM CommunityNOhttps://video.igem.org/w/1iAmAhQsNCpY8cywJyE6Tzhttps://video.igem.org/lazy-static/thumbnails/428e748d-3ad6-4316-9b18-a53d4aa832bb.pngiGEM Community - GirlsLab - The Future of Synthetic Biology: Where Is the Field Heading?iGEM Community - GirlsLab - The Future of Synthetic Biology: Where Is the Field Heading?https://static.igem.org/peertube/streaming-playlists/hls/0274d0ed-7e8b-49c7-bf60-52ec656be213/b9ba9c99-f847-4866-868a-21ae95fc2cad-master.m3u8https://video.igem.org/videos/embed/1iAmAhQsNCpY8cywJyE6Tz4266072026-03-04T10:35:17.962ZYESiGEM CommunityNOhttps://video.igem.org/c/igem/videoshttps://video.igem.org/c/2019_giant_jamboree/videoshttps://video.igem.org/c/2020_opening_weekend/videoshttps://video.igem.org/c/2020_global_meetup/videoshttps://video.igem.org/c/igem2020.teams/videoshttps://video.igem.org/c/2020_promotion_videos/videoshttps://video.igem.org/c/2020_presentations/videoshttps://video.igem.org/c/judges/videoshttps://video.igem.org/c/2020_giant_jamboree/videoshttps://video.igem.org/c/igem2021.teams/videoshttps://video.igem.org/c/2021_opening_weekend/videoshttps://video.igem.org/c/igemdesign2021/videoshttps://video.igem.org/c/igem_tv/videoshttps://video.igem.org/c/igem_webinars/videoshttps://video.igem.org/c/2021_project_promotions/videoshttps://video.igem.org/c/2021_presentations/videoshttps://video.igem.org/c/igem_academy/videoshttps://video.igem.org/c/2021_jamboree/videoshttps://video.igem.org/c/2021_judging_sessions/videoshttps://video.igem.org/c/2022_opening_day/videoshttps://video.igem.org/c/igem.community/videoshttps://video.igem.org/c/2022_teams/videoshttps://video.igem.org/c/2022_presentations/videoshttps://video.igem.org/c/2022_project_promotions/videoshttps://video.igem.org/c/2022_judging_sessions/videoshttps://video.igem.org/c/2022_jamboree/videoshttps://video.igem.org/c/2022_plaza_presentations/videoshttps://video.igem.org/c/2023_teams/videoshttps://video.igem.org/c/2023_project_promotions/videoshttps://video.igem.org/c/2023_judging_sessions/videoshttps://video.igem.org/c/2023_presentations/videoshttps://video.igem.org/c/2023_plaza_presentations/videoshttps://video.igem.org/c/2023_jamboree/videoshttps://video.igem.org/c/archive/videoshttps://video.igem.org/c/igem_startups/videoshttps://video.igem.org/c/orestisath_channel/videoshttps://video.igem.org/c/testing_channel/videoshttps://video.igem.org/c/2024_teams/videoshttps://video.igem.org/c/2024_judging_sessions/videoshttps://video.igem.org/c/2024_presentations/videoshttps://video.igem.org/c/2024_live_stage_talks/videoshttps://video.igem.org/c/2024_jamboree/videoshttps://video.igem.org/c/ingvaras_channel/videoshttps://video.igem.org/c/lukaas33_channel/videoshttps://video.igem.org/c/frontfeebs_channel/videoshttps://video.igem.org/c/konjacq_channel/videoshttps://video.igem.org/c/josh_kanter_channel/videoshttps://video.igem.org/c/lukewiebe_channel/videoshttps://video.igem.org/c/2006_jamboree/videoshttps://video.igem.org/c/2007_jamboree/videoshttps://video.igem.org/c/2008_jamboree/videoshttps://video.igem.org/c/2025_teams/videoshttps://video.igem.org/c/2025_project_promotions/videoshttps://video.igem.org/c/2025_presentations/videoshttps://video.igem.org/c/2025_live_stage_talks/videoshttps://video.igem.org/c/2025_judging_sessions/videoshttps://video.igem.org/c/2025_jamboree/videoshttps://video.igem.org/c/hbunte_channel/videoshttps://video.igem.org/a/igem_foundation/video-channelshttps://video.igem.org/a/igem_community/video-channelshttps://video.igem.org/a/igem_teams/video-channelshttps://video.igem.org/a/orestisath/video-channelshttps://video.igem.org/a/testing/video-channelshttps://video.igem.org/a/ingvaras/video-channelshttps://video.igem.org/a/lukaas33/video-channelshttps://video.igem.org/a/frontfeebs/video-channelshttps://video.igem.org/a/konjacq/video-channelshttps://video.igem.org/a/josh_kanter/video-channelshttps://video.igem.org/a/lukewiebe/video-channelshttps://video.igem.org/a/hbunte/video-channels